Cutis is a peer-reviewed clinical journal for the dermatologist, allergist, and general practitioner published monthly since 1965. Concise clinical articles present the practical side of dermatology, helping physicians to improve patient care. Cutis is referenced in Index Medicus/MEDLINE and is written and edited by industry leaders.

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A peer-reviewed, indexed journal for dermatologists with original research, image quizzes, cases and reviews, and columns.

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The Leaky Pipeline: A Narrative Review of Diversity in Dermatology

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The Leaky Pipeline: A Narrative Review of Diversity in Dermatology
In Collaboration With the Skin of Color Society

With a majority-minority population expected in the United States by 2044, improving diversity and cultural competency in the dermatology workforce is now more important than ever. A more diverse workforce increases the cultural competence of all providers, provides greater opportunities for mentorship and sponsorship of underrepresented minority (URM) trainees, establishes a more inclusive environment for learners, and enhances the knowledge and productivity of the workforce.1-3 Additionally, it is imperative to address clinical care disparities seen in minority patients in dermatology, including treatment of skin cancer, psoriasis, acne, atopic dermatitis, and other diseases.4-7

Despite the attention that has been devoted to improving diversity in medicine,8-10 dermatology remains one of the least diverse specialties, prompting additional calls to action within the field.11 Why does the lack of diversity still exist in dermatology, and what is the path to correcting this problem? In this article, we review the evidence of diversity barriers at different stages of medical education training that may impede academic advancement for minority learners pursuing careers in dermatology.

Undergraduate Medical Education

The term leaky pipeline refers to the progressive decline in the number of URMs along a given career path, including in dermatology. The Association of American Medical Colleges defines URMs as racial/ethnic populations that are “underrepresented in the medical profession relative to their numbers in the general population.”9 The first leak in the pipeline is that URMs are not applying to medical school. From 2002 and 2017, rates of both application and matriculation to medical school were lower by 30% to 70% in URM groups compared to White students, including Hispanic, Black, and American Indian/Alaska Native students.12,13 The decision not to apply to medical school was greater in URM undergraduate students irrespective of scholastic ability as measured by SAT scores.14

A striking statistic is that the number of Black men matriculating into medical school in 2014 was less than it was in 1978 despite the increase in the number of US medical schools and efforts to recruit more diverse student populations. The Association of American Medical Colleges identified potential reasons for this decline, including poor early education, lack of mentorship, negative perceptions of Black men due to racial stereotypes, and lack of financial and academic resources to support the application process.8,13,15-17 Implicit racial bias by admission committees also may play a role.

Medical School Matriculation and Applying to Dermatology Residency

There is greater representation of URM students in medical school than in dermatology residency, which means URM students are either not applying to dermatology programs or they are not matching into the specialty. In the Electronic Residency Application Service’s 2016-2017 application cycle (N=776), there were 76 (9.8%) URM dermatology residency applicants.18 In 2018, there was a notable decline in representation of Black students among residency applicants (4.9%) to matched residents (3.7%), and there were only 133 (9.3%) URM dermatology residents in total (PGY2-PGY4 classes).19 The lack of exposure to medical subspecialties and the recommendation by medical schools for URM medical students to pursue careers in primary care have been cited as reasons that these students may not apply to residency programs in specialty care.20,21 The presence of an Accreditation Council for Graduate Medical Education dermatology residency program, fellowships, and dermatology interest groups at their medical schools correlated with higher proportions of URM students applying to dermatology programs.20

Underrepresented minority students face critical challenges during medical school, including receiving lower grades in both standardized and school-designated assessments and clerkship grades.21,22 A 2019 National Board of Medical Examiners study found that Hispanic and Black test takers scored 12.1 and 16.6 points lower than White men, respectively, on the US Medical Licensing Examination (USMLE) Step 1.23 Black and Asian students also were less likely than White students to be selected as members of the Alpha Omega Alpha Honor Medical Society (AΩA), even after accounting for USMLE Step 1 scores, research productivity, community service, leadership, and Gold Humanism Honor Society membership.24 Taken together, the emphasis on clinical grades, USMLE scores, and AΩA status as recruitment and selection criteria likely deters URM students from applying to and may preclude them from successfully matching into highly selective specialties such as dermatology.25

A recent cross-sectional study showed that lack of equitable resources, lack of support, financial constrictions, and lack of group identity were 4 barriers to URM students matching into dermatology.26 Dermatology is a competitive specialty with the highest median Electronic Residency Application Service applications submitted per US applicant (n=90)27 and an approximate total cost per US applicant of $10,781.28,29 Disadvantaged URM applicants noted relying on loans while non-URM applicants cited family financial support as being beneficial.26 In addition, an increasing number of applicants take gap years for research, which pose additional costs for finances and resources. In contrast, mentorship and participation in pipeline/enrichment programs were factors associated with URM students matching into dermatology.26

 

 

Dermatology Residency and the Transition to Advanced Dermatology Fellowships

Similar to the transition from medical school into dermatology residency, URM dermatology residents are either not applying to fellowships or are not getting in. In the 2018-2019 academic year, there were no Black, Hispanic, Native Hawaiian/Pacific Islander, or American Indian/Alaska Native Mohs micrographic surgery and dermatologic oncology fellows.19 Similarly, there were no Black, Native Hawaiian/Pacific Islander, or American Indian/Alaska Native dermatopathology fellows. There were 4 (6%) Hispanic dermatopathology fellows.19

There also is marked underrepresentation of minority groups—and minimal growth over time—in the dermatology procedural subspecialty. Whereas the percentage of female Mohs surgeons increased considerably from 1985 to 2005 (12.7% to 40.9%, respectively), the percentage of URM Mohs surgeons remained steady from 4.2% to 4.6%, respectively, and remained at 4.5% in 2014.30

There are no available data on the race/ethnicity of fellowship applicants, as these demographic data for the application process have not been consistently or traditionally collected. The reasons why there are so few URM dermatology fellows is not known; whether this is due to a lack of mentorship or whether other factors lead to residents not applying for advanced training needs further study. Financial factors related to prolonged training, which include lower salaries and delayed loan repayment, may present barriers to applying to fellowships.

Lack of URM Academic Faculty in Dermatology

At the academic faculty level, URM representation continues to worsen. Lett et al31 found that there is declining racial and ethnic representation in clinical academic medicine relative to US census data for 16 US medical specialties, including dermatology, with growing underrepresentation of Black and Hispanic faculty at the associate professor and full professor levels and underrepresentation in all faculty ranks. From 1970 to 2018, URM faculty in dermatology only increased from 4.8% to 7.4%, respectively. Non-URM female and male faculty members increased by 13.8 and 10.8 faculty members per year, respectively, while URM female and male faculty members increased by 1.2 and 0.8 faculty members per year, respectively.32

Underrepresentation of minorities seen in dermatology faculty may result from clinical demands, minority taxation (defined as the extensive service requirements uniquely experienced by URM faculty to disproportionately serve as representatives on academic committees and to mentor URM students), and barriers to academic promotion, which are challenges uniquely encountered by URMs in academic dermatology.33 Increased clinical demand may result from the fact that URM physicians are more likely to care for underserved populations, those of lower socioeconomic status, non-English–speaking patients, those on Medicaid, and those who are uninsured, which may impact renumeration. Minority tax experienced by URM faculty includes mentoring URM medical students, providing cultural expertise to departments and institutions, and participating in community service projects and outreach programs. Specifically, many institutional committees require the participation of a URM member, resulting in URM faculty members experiencing higher committee service burden. Many, if not all, of these responsibilities often are not compensated through salary or academic promotion.

A Call to Action

There are several steps that can be taken to create a pathway to dermatology that is inclusive, flexible, and supportive of URMs.

Increase early exposure to dermatology in medical school. Early exposure and mentorship opportunities are associated with higher rates of students pursuing specialty field careers.34 Increased early opportunities allow for URM students to consider and explore a career in dermatology; receive mentorship; and ensure that dermatology, including topics related to skin of color (SOC), is incorporated into their learning. The American Academy of Dermatology has contributed to these efforts by its presence at every national meeting of the Student National Medical Association and Latino Medical Student Association, as well as its involvement with Nth Dimensions, which offers various educational opportunities for URM medical students.

Implement equitable grading and holistic review processes in medical school. Racial/ethnic differences in clinical grading and standardized test scores in medical school demonstrate why holistic review of dermatology residency applicants is needed and why other metrics such as USMLE scores and AΩA status should be de-emphasized or eliminated when evaluating candidates. To support equity, many medical schools have eliminated honors grading, and some schools have eliminated AΩA distinction.

 

 

Increase diversity of dermatology residents and residency programs. Implicit bias training for a medical school admissions committee has been shown to increase diversity in medical school enrollment.35 Whether implicit bias training and other diversity training may benefit dermatology residency selection must be examined, including study of unintended consequences, such as reduced diversity, increased microaggressions toward minority colleagues, and the illusion of fairness.36-39 Increasing representation is not sufficient—creating inclusive residency training environments is a critical parallel aim. Prioritizing diversity in dermatology residency recruitment is imperative. Creating dermatology residency positions specifically for URM residents may be an important option, as done at the University of Pennsylvania (Philadelphia, Pennsylvania) and Duke University (Durham, North Carolina).

Create effective programs for URM mentorship. Due to the competitive nature of dermatology residency, the need for mentors in dermatology is critically vital for URM medical students, especially those without a home dermatology program at their medical school. Further development of formal mentorship and pipeline programs is essential at both the local and national levels. Some national examples of these initiatives include diversity mentorship programs offered by the American Academy of Dermatology, Skin of Color Society, Women’s Dermatologic Society, and Student National Medical Association. Many institutional programs also offer invaluable opportunities, such as the summer research fellowship at the University of California, San Francisco (UCSF); visiting clerkship grants for URMs at the University of Pennsylvania (Philadelphia, Pennsylvania) and Johns Hopkins University (Baltimore, Maryland); and integrated programs, such as the Visiting Elective Scholarship Program at UCSF, which provides funding and faculty mentorship for URM students completing an away rotation at UCSF.

Establish longitudinal skin-of-color curricula and increased opportunities for research. More robust SOC training may lead to an increasingly diverse workforce. It is important that medical student and dermatology resident and fellow education include training on SOC to ensure high-quality care to diverse patient populations, which also may enhance the knowledge of trainees, encourage clinical and research interest in this field, and reduce health care disparities. Increasing research opportunities and offering formalized longitudinal training in SOC as well as incorporating more diverse images in medical school education may foster greater interest in this field at a time when trainees are establishing their career interests. At present, there is considerable room for improvement. Nijhawan et al40 surveyed 63 dermatology chief residents and 41 program directors and found only 14.3% and 14.6%, respectively, reported having an expert who conducts clinic specializing in SOC. Only 52.4% and 65.9% reported having didactic sessions or lectures focused on SOC diseases, and 30.2% and 12.2% reported having a dedicated rotation for residents to gain experience in SOC.40 A more recent study showed that when faculty were asked to incorporate more SOC content into lectures, the most commonly identified barrier to implementation was a lack of SOC images.41 Additionally, there remains a paucity of published research on this topic, with SOC articles representing only 2.7% of the literature.42 These numbers demonstrate the continued need for a more inclusive and comprehensive curriculum in dermatology residency programs and more robust funding for SOC research.

Recruit and support URM faculty. Increasing diversity in dermatology residency programs likely will increase the number of potential URMs pursuing additional fellowship training and academic dermatology with active career mentorship and support. In addition, promoting faculty retention by combatting the progressive loss of URMs at all faculty levels is paramount. Mentorship for URM physicians has been shown to play a key role in the decision to pursue academic medicine as well as academic productivity and job satisfaction.43,44 The visibility, cultural competency, clinical work, academic productivity, and mentorship efforts that URM faculty provide are essential to enhancing patient care, teaching diverse groups of learners, and recruiting more diverse trainees. Protected time to participate in professional development opportunities has been shown to improve recruitment and retention of URM faculty and offer additional opportunities for junior faculty to find mentors.35,36 Incentivizing clinical care of underserved populations also may augment financial stability for URM physicians who choose to care for these patients. Finally, diversity work and community service should be legitimized and count toward faculty promotion.

Conclusion

There are numerous factors that contribute to the leaky pipeline in dermatology (eFigure). Many challenges that are unique to the URM population disadvantage these students from entering medical school, applying to dermatology residency, matching into dermatology fellowships, pursuing and staying in faculty positions, and achieving faculty advancement into leadership positions. With each progressive step along this trajectory, there is less minority representation. All dermatologists, regardless of race/ethnicity, need to play an active role and must prioritize diversity, equity, and inclusion efforts at all levels of education and training for the betterment of the specialty.

Schematic of the leaky pipeline in dermatology and potential action items and solutions at each stage of academic development
eFIGURE. Schematic of the leaky pipeline in dermatology and potential action items and solutions at each stage of academic development. Asterisk indicates unpublished data, Association of American Medical Colleges Diversity in Medicine: Facts and Figures, 2013.
References
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  2. Yehia BR, Cronholm PF, Wilson N, et al. Mentorship and pursuit of academic medicine careers: a mixed methods study of residents from diverse backgrounds. BMC Med Educ. 2014:14:2-26. doi:10.1186/1472-6920-14-26
  3. Saha S, Guiton G, Wimmers PF, et al. Student body racial and ethnic composition and diversity-related outcomes in US medical schools. JAMA. 2008;300:1135-1145. doi:10.1001/jama.300.10.1135
  4. Hsu DY, Gordon K, Silverberg JI. The patient burden of psoriasis in the United States. J Am Acad Dermatol. 2016;75:33-41. doi:10.1016/j.jaad.2016.03.048
  5. Silverberg JI. Racial and ethnic disparities in atopic dermatitis. Curr Dermatol Rep. 2015;4:44-48.
  6. Buster KJ, Sevens EI, Elmets CA. Dermatologic health disparities. Dermatol Clin. 2012;30:53-59. doi:10.1016/j.det.2011.08.002
  7. Barbieri JS, Shin DB, Wang S, et al. Association of race/ethnicity with differences in health care use and treatment for acne. JAMA Dermatol. 2020;156:312-319. doi:10.1001/jamadermatol.2019.4818
  8. Smedley BD, Stith AY, Colburn L, et al. The Right Thing To Do, The Smart Thing to Do: Enhancing Diversity in the Health Professions. National Academies Press; 2001.
  9. Association of American Medical Colleges. Minorities in medical education: fact and figures 2019. Accessed December 9, 2021. https://www.aamc.org/datareports/workforce/report/diversity-medicine-facts-and-figures-2019
  10. Liaison Committee on Medical Education (LCME) standards on diversity. University of South Florida Health website. Accessed December 9, 2021. https://health.usf.edu/~/media/Files/Medicine/MD%20Program/Diversity/LCMEStandardsonDiversity1.ashx?la=en
  11. Granstein RD, Cornelius L, Shinkai K. Diversity in dermatology—a call for action. JAMA Dermatol. 2017;153:499-500. doi:10.1001/jamadermatol.2017.0296
  12. Lett LA, Murdock HM, Orji W, et al. Trends in racial/ethnic representation among US medical students. JAMA Netw Open. 2019;2:e1910490. doi:10.1001/jamanetworkopen.2019.10490
  13. Association of American Medical Colleges. Altering the course: Black males in medicine. Published 2015. Accessed December 8, 2021. https://store.aamc.org/downloadable/download/sample/sample_id/84/
  14. Barr DA, Gonzalez ME, Wanat SF. The leaky pipeline: factors associated with early decline in interest in premedical studies among underrepresented minority undergraduate students. Acad Med. 2008;83:5:503-511. doi:10.1097/ACM.0b013e31816bda16
  15. Flores RL. The rising gap between rich and poor: a look at the persistence of educational disparities in the United States and why we should worry. Cogent Soc Sci. 2017;3:1323698.
  16. Jackson D. Why am I behind? an examination of low income and minority students’ preparedness for college. McNair Sch J. 2012;13:121-138.
  17. Rothstein R. The racial achievement gap, segregated schools, andsegregated neighborhoods: a constitutional insult. Race Soc Probl. 2015;7:21-30.
  18. Association of American Medical Colleges. Residency Applicants From US MD Granting Medical Schools to ACGME-Accredited Programs by Specialty and Race/Ethnicity. Association of American Medical Colleges; 2017.
  19. Brotherton SE, Etzel SL. Graduate medical education, 2018-2019. JAMA. 2019;322:996-1016. doi:10.1001/jama.2019.10155
  20. Barnes LA, Bae GH, Nambudiri V. Sex and racial/ethnic diversity of US medical students and their exposure to dermatology programs. JAMA Dermatol. 2019;155:490-491. doi:10.1001/jamadermatol.2018.5025
  21. Soliman YS, Rzepecki AK, Guzman AK. Understanding perceived barriers of minority medical students pursuing a career in dermatology. JAMA Dermatol. 2019;155:252-254. doi:10.1001/jamadermatol.2018.4813
  22. Low D, Pollack SW, Liao Z, et al. Racial/ethnic disparities in clinical grading in medical school. Teach Learn Med. 2019;31:487-496. doi:10.1080/10401334.2019.1597724
  23. Rubright JD, Jodoin M, Barone MA. Examining demographics, prior academic performance and United States medical licensing examination scores. Acad Med. 2019;94;364-370. doi:10.1097/ACM.0000000000002366
  24. Boatright D, Ross D, O’Connor P, et al. Racial disparities in medical student membership in the alpha omega honor society. JAMA Intern Med. 2017;177:659-665. doi:10.1001/jamainternmed.2016.9623
  25. Gorouhi F, Alikhan A, Rezaei A, et al. Dermatology residency selection criteria with an emphasis on program characteristics: a national program director survey [published online March 17, 2014]. Dermatol Res Pract. doi:10.1155/2014/692760
  26. Vasquez R, Jeong H, Florez-Pollack S, et al. What are the barriers faced by underrepresented minorities applying to dermatology? a qualitative cross-sectional study of applicants applying to a large dermatology residency program. J Am Acad Dermatol. 2020;83:1770-1773. doi:10.1016/j.jaad.2020.03.067
  27. Results of the 2019 NRMP applicant survey by preferred specialty and applicant type. National Resident Matching Program website. Published July 2019. Accessed December 8, 2021. https://www.nrmp.org/wp-content/uploads/2019/06/Applicant-Survey-Report-2019.pdf
  28. Mansouri B, Walker GD, Mitchell J, et al. The cost of applying to dermatology residency: 2014 data estimates. J Am Acad Dermatol. 2016;74:754-756. doi:10.1016/j.jaad.2015.10.049
  29. Polacco MA, Lally J, Walls A, et al. Digging into debt: the financial burden associated with the otolaryngology match. Otolaryngol Head Neck Surg. 2017;12:1091-1096. doi:10.1177/0194599816686538
  30. Feng H, Feng PW, Geronemus RG. Diversity in the US Mohs micrographic surgery workforce. Dermatol Surg. 2020:46:1451-1455. doi:10.1097/DSS.0000000000002080
  31. Lett LA, Orji WU, Sebro R. Declining racial and ethnic representation in clinical academic medicine: a longitudinal study of 16 US medical specialties. PLoS ONE. 2018;13:e0207274. doi:10.1371/journal.pone.020727432. Xierali IM, Nivet MA, Pandya AG. US Dermatology department faculty diversity trends by sex and underrepresented-in-medicine status, 1970-2018. JAMA Dermatol. 2020;156:280-287. doi:10.1001/jamadermatol.2019.4297
  32. Okoye GA. Supporting underrepresented minority women in academic dermatology. Intl J Womens Dermatol. 2020;6:57-60. doi:10.1016/j.ijwd.2019.09.009
  33. Bernstein J, Dicaprio MR, Mehta S. The relationship between required medical school instruction in musculoskeletal medicine and application rates to orthopaedic surgery residency programs. J Bone Joint Surg Am. 2004;86:2335-2338. doi:10.2106/00004623-200410000-00031
  34. Capers Q, Clinchot D, McDougle L, et al. Implicit racial bias in medical school admissions. Acad Med. 2017;92:365-369. doi:10.1097/ACM.0000000000001388
  35. Dobbin F, Kalev A. Why diversity programs fail. Harvard Business Rev. 2016;52-60. Accessed December 8, 2021. https://hbr.org/2016/07/why-diversity-programs-fail
  36. Kalev A, Dobbin F, Kelly E. Best practices or best guesses? assessing the efficacy of corporate affirmative action and diversity policies. Am Sociol Rev. 2006;71:589-617.
  37. Sanchez JI, Medkik N. The effects of diversity awareness training on differential treatment. Group Organ Manag. 2004;29:517-536.
  38. Kaiser CR, Major B, Jurcevic I, et al. Presumed fair: ironic effects of organizational diversity structures. J Pers Soc Psychol. 2013;104:504-519. doi:10.1037/a0030838
  39. Nijhawan RI, Jacob SE, Woolery-Lloyd H. Skin of color education in dermatology residency programs: does residency training reflect the changing demographics of the United States? J Am Acad Dermatol. 2008;59:615-617.
  40. Jia JL, Gordon JS, Lester JC, et al. Integrating skin of color and sexual and gender minority content into dermatology residency curricula: a prospective program initiative [published online April 16, 2021]. J Am Acad Dermatol. doi:10.1016/j.jaad.2021.04.018
  41. Amuzie AU, Lia JL, Taylor SC, et al. Skin of color article representation in dermatology literature 2009-2019: higher citation counts and opportunities for inclusion [published online March 24, 2021]. J Am Acad Dermatol. doi:10.1016/j.jaad.2021.03.063
  42. Beech BM, Calles-Escandon J, Hairston KC, et al. Mentoring programs for underrepresented minority faculty in academic medical center: a systematic review of the literature. Acad Med. 2013;88:541-549. doi:10.1097/ACM.0b013e31828589e3
  43. Daley S, Wingard DL, Reznik V. Improving the retention of underrepresented minority faculty in academic medicine. J Natl Med Assoc. 2006;98:1435-1440. doi:10.1016/s0027-9684(15)31449-8
  44. Association of American Medical Colleges. US medical school faculty by sex, race/ethnicity, rank, and department, 2019. Published December 31, 2019. Accessed December 20, 2021. https://www.aamc.org/media/8476/download?attachment
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Author and Disclosure Information

Dr. Williams is from the Department of Dermatology, Cleveland Clinic, Ohio. Dr. Shinkai is from the Department of Dermatology, University of California, San Francisco.

The authors report no conflict of interest.

The eFigure is available in the Appendix online at www.mdedge.com/dermatology.

Correspondence: Kiyanna Williams, MD, 2049 E 100th St, Cleveland, OH 44106 (Kiyanna.williams@gmail.com).

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Author and Disclosure Information

Dr. Williams is from the Department of Dermatology, Cleveland Clinic, Ohio. Dr. Shinkai is from the Department of Dermatology, University of California, San Francisco.

The authors report no conflict of interest.

The eFigure is available in the Appendix online at www.mdedge.com/dermatology.

Correspondence: Kiyanna Williams, MD, 2049 E 100th St, Cleveland, OH 44106 (Kiyanna.williams@gmail.com).

Author and Disclosure Information

Dr. Williams is from the Department of Dermatology, Cleveland Clinic, Ohio. Dr. Shinkai is from the Department of Dermatology, University of California, San Francisco.

The authors report no conflict of interest.

The eFigure is available in the Appendix online at www.mdedge.com/dermatology.

Correspondence: Kiyanna Williams, MD, 2049 E 100th St, Cleveland, OH 44106 (Kiyanna.williams@gmail.com).

Article PDF
Article PDF
In Collaboration With the Skin of Color Society
In Collaboration With the Skin of Color Society

With a majority-minority population expected in the United States by 2044, improving diversity and cultural competency in the dermatology workforce is now more important than ever. A more diverse workforce increases the cultural competence of all providers, provides greater opportunities for mentorship and sponsorship of underrepresented minority (URM) trainees, establishes a more inclusive environment for learners, and enhances the knowledge and productivity of the workforce.1-3 Additionally, it is imperative to address clinical care disparities seen in minority patients in dermatology, including treatment of skin cancer, psoriasis, acne, atopic dermatitis, and other diseases.4-7

Despite the attention that has been devoted to improving diversity in medicine,8-10 dermatology remains one of the least diverse specialties, prompting additional calls to action within the field.11 Why does the lack of diversity still exist in dermatology, and what is the path to correcting this problem? In this article, we review the evidence of diversity barriers at different stages of medical education training that may impede academic advancement for minority learners pursuing careers in dermatology.

Undergraduate Medical Education

The term leaky pipeline refers to the progressive decline in the number of URMs along a given career path, including in dermatology. The Association of American Medical Colleges defines URMs as racial/ethnic populations that are “underrepresented in the medical profession relative to their numbers in the general population.”9 The first leak in the pipeline is that URMs are not applying to medical school. From 2002 and 2017, rates of both application and matriculation to medical school were lower by 30% to 70% in URM groups compared to White students, including Hispanic, Black, and American Indian/Alaska Native students.12,13 The decision not to apply to medical school was greater in URM undergraduate students irrespective of scholastic ability as measured by SAT scores.14

A striking statistic is that the number of Black men matriculating into medical school in 2014 was less than it was in 1978 despite the increase in the number of US medical schools and efforts to recruit more diverse student populations. The Association of American Medical Colleges identified potential reasons for this decline, including poor early education, lack of mentorship, negative perceptions of Black men due to racial stereotypes, and lack of financial and academic resources to support the application process.8,13,15-17 Implicit racial bias by admission committees also may play a role.

Medical School Matriculation and Applying to Dermatology Residency

There is greater representation of URM students in medical school than in dermatology residency, which means URM students are either not applying to dermatology programs or they are not matching into the specialty. In the Electronic Residency Application Service’s 2016-2017 application cycle (N=776), there were 76 (9.8%) URM dermatology residency applicants.18 In 2018, there was a notable decline in representation of Black students among residency applicants (4.9%) to matched residents (3.7%), and there were only 133 (9.3%) URM dermatology residents in total (PGY2-PGY4 classes).19 The lack of exposure to medical subspecialties and the recommendation by medical schools for URM medical students to pursue careers in primary care have been cited as reasons that these students may not apply to residency programs in specialty care.20,21 The presence of an Accreditation Council for Graduate Medical Education dermatology residency program, fellowships, and dermatology interest groups at their medical schools correlated with higher proportions of URM students applying to dermatology programs.20

Underrepresented minority students face critical challenges during medical school, including receiving lower grades in both standardized and school-designated assessments and clerkship grades.21,22 A 2019 National Board of Medical Examiners study found that Hispanic and Black test takers scored 12.1 and 16.6 points lower than White men, respectively, on the US Medical Licensing Examination (USMLE) Step 1.23 Black and Asian students also were less likely than White students to be selected as members of the Alpha Omega Alpha Honor Medical Society (AΩA), even after accounting for USMLE Step 1 scores, research productivity, community service, leadership, and Gold Humanism Honor Society membership.24 Taken together, the emphasis on clinical grades, USMLE scores, and AΩA status as recruitment and selection criteria likely deters URM students from applying to and may preclude them from successfully matching into highly selective specialties such as dermatology.25

A recent cross-sectional study showed that lack of equitable resources, lack of support, financial constrictions, and lack of group identity were 4 barriers to URM students matching into dermatology.26 Dermatology is a competitive specialty with the highest median Electronic Residency Application Service applications submitted per US applicant (n=90)27 and an approximate total cost per US applicant of $10,781.28,29 Disadvantaged URM applicants noted relying on loans while non-URM applicants cited family financial support as being beneficial.26 In addition, an increasing number of applicants take gap years for research, which pose additional costs for finances and resources. In contrast, mentorship and participation in pipeline/enrichment programs were factors associated with URM students matching into dermatology.26

 

 

Dermatology Residency and the Transition to Advanced Dermatology Fellowships

Similar to the transition from medical school into dermatology residency, URM dermatology residents are either not applying to fellowships or are not getting in. In the 2018-2019 academic year, there were no Black, Hispanic, Native Hawaiian/Pacific Islander, or American Indian/Alaska Native Mohs micrographic surgery and dermatologic oncology fellows.19 Similarly, there were no Black, Native Hawaiian/Pacific Islander, or American Indian/Alaska Native dermatopathology fellows. There were 4 (6%) Hispanic dermatopathology fellows.19

There also is marked underrepresentation of minority groups—and minimal growth over time—in the dermatology procedural subspecialty. Whereas the percentage of female Mohs surgeons increased considerably from 1985 to 2005 (12.7% to 40.9%, respectively), the percentage of URM Mohs surgeons remained steady from 4.2% to 4.6%, respectively, and remained at 4.5% in 2014.30

There are no available data on the race/ethnicity of fellowship applicants, as these demographic data for the application process have not been consistently or traditionally collected. The reasons why there are so few URM dermatology fellows is not known; whether this is due to a lack of mentorship or whether other factors lead to residents not applying for advanced training needs further study. Financial factors related to prolonged training, which include lower salaries and delayed loan repayment, may present barriers to applying to fellowships.

Lack of URM Academic Faculty in Dermatology

At the academic faculty level, URM representation continues to worsen. Lett et al31 found that there is declining racial and ethnic representation in clinical academic medicine relative to US census data for 16 US medical specialties, including dermatology, with growing underrepresentation of Black and Hispanic faculty at the associate professor and full professor levels and underrepresentation in all faculty ranks. From 1970 to 2018, URM faculty in dermatology only increased from 4.8% to 7.4%, respectively. Non-URM female and male faculty members increased by 13.8 and 10.8 faculty members per year, respectively, while URM female and male faculty members increased by 1.2 and 0.8 faculty members per year, respectively.32

Underrepresentation of minorities seen in dermatology faculty may result from clinical demands, minority taxation (defined as the extensive service requirements uniquely experienced by URM faculty to disproportionately serve as representatives on academic committees and to mentor URM students), and barriers to academic promotion, which are challenges uniquely encountered by URMs in academic dermatology.33 Increased clinical demand may result from the fact that URM physicians are more likely to care for underserved populations, those of lower socioeconomic status, non-English–speaking patients, those on Medicaid, and those who are uninsured, which may impact renumeration. Minority tax experienced by URM faculty includes mentoring URM medical students, providing cultural expertise to departments and institutions, and participating in community service projects and outreach programs. Specifically, many institutional committees require the participation of a URM member, resulting in URM faculty members experiencing higher committee service burden. Many, if not all, of these responsibilities often are not compensated through salary or academic promotion.

A Call to Action

There are several steps that can be taken to create a pathway to dermatology that is inclusive, flexible, and supportive of URMs.

Increase early exposure to dermatology in medical school. Early exposure and mentorship opportunities are associated with higher rates of students pursuing specialty field careers.34 Increased early opportunities allow for URM students to consider and explore a career in dermatology; receive mentorship; and ensure that dermatology, including topics related to skin of color (SOC), is incorporated into their learning. The American Academy of Dermatology has contributed to these efforts by its presence at every national meeting of the Student National Medical Association and Latino Medical Student Association, as well as its involvement with Nth Dimensions, which offers various educational opportunities for URM medical students.

Implement equitable grading and holistic review processes in medical school. Racial/ethnic differences in clinical grading and standardized test scores in medical school demonstrate why holistic review of dermatology residency applicants is needed and why other metrics such as USMLE scores and AΩA status should be de-emphasized or eliminated when evaluating candidates. To support equity, many medical schools have eliminated honors grading, and some schools have eliminated AΩA distinction.

 

 

Increase diversity of dermatology residents and residency programs. Implicit bias training for a medical school admissions committee has been shown to increase diversity in medical school enrollment.35 Whether implicit bias training and other diversity training may benefit dermatology residency selection must be examined, including study of unintended consequences, such as reduced diversity, increased microaggressions toward minority colleagues, and the illusion of fairness.36-39 Increasing representation is not sufficient—creating inclusive residency training environments is a critical parallel aim. Prioritizing diversity in dermatology residency recruitment is imperative. Creating dermatology residency positions specifically for URM residents may be an important option, as done at the University of Pennsylvania (Philadelphia, Pennsylvania) and Duke University (Durham, North Carolina).

Create effective programs for URM mentorship. Due to the competitive nature of dermatology residency, the need for mentors in dermatology is critically vital for URM medical students, especially those without a home dermatology program at their medical school. Further development of formal mentorship and pipeline programs is essential at both the local and national levels. Some national examples of these initiatives include diversity mentorship programs offered by the American Academy of Dermatology, Skin of Color Society, Women’s Dermatologic Society, and Student National Medical Association. Many institutional programs also offer invaluable opportunities, such as the summer research fellowship at the University of California, San Francisco (UCSF); visiting clerkship grants for URMs at the University of Pennsylvania (Philadelphia, Pennsylvania) and Johns Hopkins University (Baltimore, Maryland); and integrated programs, such as the Visiting Elective Scholarship Program at UCSF, which provides funding and faculty mentorship for URM students completing an away rotation at UCSF.

Establish longitudinal skin-of-color curricula and increased opportunities for research. More robust SOC training may lead to an increasingly diverse workforce. It is important that medical student and dermatology resident and fellow education include training on SOC to ensure high-quality care to diverse patient populations, which also may enhance the knowledge of trainees, encourage clinical and research interest in this field, and reduce health care disparities. Increasing research opportunities and offering formalized longitudinal training in SOC as well as incorporating more diverse images in medical school education may foster greater interest in this field at a time when trainees are establishing their career interests. At present, there is considerable room for improvement. Nijhawan et al40 surveyed 63 dermatology chief residents and 41 program directors and found only 14.3% and 14.6%, respectively, reported having an expert who conducts clinic specializing in SOC. Only 52.4% and 65.9% reported having didactic sessions or lectures focused on SOC diseases, and 30.2% and 12.2% reported having a dedicated rotation for residents to gain experience in SOC.40 A more recent study showed that when faculty were asked to incorporate more SOC content into lectures, the most commonly identified barrier to implementation was a lack of SOC images.41 Additionally, there remains a paucity of published research on this topic, with SOC articles representing only 2.7% of the literature.42 These numbers demonstrate the continued need for a more inclusive and comprehensive curriculum in dermatology residency programs and more robust funding for SOC research.

Recruit and support URM faculty. Increasing diversity in dermatology residency programs likely will increase the number of potential URMs pursuing additional fellowship training and academic dermatology with active career mentorship and support. In addition, promoting faculty retention by combatting the progressive loss of URMs at all faculty levels is paramount. Mentorship for URM physicians has been shown to play a key role in the decision to pursue academic medicine as well as academic productivity and job satisfaction.43,44 The visibility, cultural competency, clinical work, academic productivity, and mentorship efforts that URM faculty provide are essential to enhancing patient care, teaching diverse groups of learners, and recruiting more diverse trainees. Protected time to participate in professional development opportunities has been shown to improve recruitment and retention of URM faculty and offer additional opportunities for junior faculty to find mentors.35,36 Incentivizing clinical care of underserved populations also may augment financial stability for URM physicians who choose to care for these patients. Finally, diversity work and community service should be legitimized and count toward faculty promotion.

Conclusion

There are numerous factors that contribute to the leaky pipeline in dermatology (eFigure). Many challenges that are unique to the URM population disadvantage these students from entering medical school, applying to dermatology residency, matching into dermatology fellowships, pursuing and staying in faculty positions, and achieving faculty advancement into leadership positions. With each progressive step along this trajectory, there is less minority representation. All dermatologists, regardless of race/ethnicity, need to play an active role and must prioritize diversity, equity, and inclusion efforts at all levels of education and training for the betterment of the specialty.

Schematic of the leaky pipeline in dermatology and potential action items and solutions at each stage of academic development
eFIGURE. Schematic of the leaky pipeline in dermatology and potential action items and solutions at each stage of academic development. Asterisk indicates unpublished data, Association of American Medical Colleges Diversity in Medicine: Facts and Figures, 2013.

With a majority-minority population expected in the United States by 2044, improving diversity and cultural competency in the dermatology workforce is now more important than ever. A more diverse workforce increases the cultural competence of all providers, provides greater opportunities for mentorship and sponsorship of underrepresented minority (URM) trainees, establishes a more inclusive environment for learners, and enhances the knowledge and productivity of the workforce.1-3 Additionally, it is imperative to address clinical care disparities seen in minority patients in dermatology, including treatment of skin cancer, psoriasis, acne, atopic dermatitis, and other diseases.4-7

Despite the attention that has been devoted to improving diversity in medicine,8-10 dermatology remains one of the least diverse specialties, prompting additional calls to action within the field.11 Why does the lack of diversity still exist in dermatology, and what is the path to correcting this problem? In this article, we review the evidence of diversity barriers at different stages of medical education training that may impede academic advancement for minority learners pursuing careers in dermatology.

Undergraduate Medical Education

The term leaky pipeline refers to the progressive decline in the number of URMs along a given career path, including in dermatology. The Association of American Medical Colleges defines URMs as racial/ethnic populations that are “underrepresented in the medical profession relative to their numbers in the general population.”9 The first leak in the pipeline is that URMs are not applying to medical school. From 2002 and 2017, rates of both application and matriculation to medical school were lower by 30% to 70% in URM groups compared to White students, including Hispanic, Black, and American Indian/Alaska Native students.12,13 The decision not to apply to medical school was greater in URM undergraduate students irrespective of scholastic ability as measured by SAT scores.14

A striking statistic is that the number of Black men matriculating into medical school in 2014 was less than it was in 1978 despite the increase in the number of US medical schools and efforts to recruit more diverse student populations. The Association of American Medical Colleges identified potential reasons for this decline, including poor early education, lack of mentorship, negative perceptions of Black men due to racial stereotypes, and lack of financial and academic resources to support the application process.8,13,15-17 Implicit racial bias by admission committees also may play a role.

Medical School Matriculation and Applying to Dermatology Residency

There is greater representation of URM students in medical school than in dermatology residency, which means URM students are either not applying to dermatology programs or they are not matching into the specialty. In the Electronic Residency Application Service’s 2016-2017 application cycle (N=776), there were 76 (9.8%) URM dermatology residency applicants.18 In 2018, there was a notable decline in representation of Black students among residency applicants (4.9%) to matched residents (3.7%), and there were only 133 (9.3%) URM dermatology residents in total (PGY2-PGY4 classes).19 The lack of exposure to medical subspecialties and the recommendation by medical schools for URM medical students to pursue careers in primary care have been cited as reasons that these students may not apply to residency programs in specialty care.20,21 The presence of an Accreditation Council for Graduate Medical Education dermatology residency program, fellowships, and dermatology interest groups at their medical schools correlated with higher proportions of URM students applying to dermatology programs.20

Underrepresented minority students face critical challenges during medical school, including receiving lower grades in both standardized and school-designated assessments and clerkship grades.21,22 A 2019 National Board of Medical Examiners study found that Hispanic and Black test takers scored 12.1 and 16.6 points lower than White men, respectively, on the US Medical Licensing Examination (USMLE) Step 1.23 Black and Asian students also were less likely than White students to be selected as members of the Alpha Omega Alpha Honor Medical Society (AΩA), even after accounting for USMLE Step 1 scores, research productivity, community service, leadership, and Gold Humanism Honor Society membership.24 Taken together, the emphasis on clinical grades, USMLE scores, and AΩA status as recruitment and selection criteria likely deters URM students from applying to and may preclude them from successfully matching into highly selective specialties such as dermatology.25

A recent cross-sectional study showed that lack of equitable resources, lack of support, financial constrictions, and lack of group identity were 4 barriers to URM students matching into dermatology.26 Dermatology is a competitive specialty with the highest median Electronic Residency Application Service applications submitted per US applicant (n=90)27 and an approximate total cost per US applicant of $10,781.28,29 Disadvantaged URM applicants noted relying on loans while non-URM applicants cited family financial support as being beneficial.26 In addition, an increasing number of applicants take gap years for research, which pose additional costs for finances and resources. In contrast, mentorship and participation in pipeline/enrichment programs were factors associated with URM students matching into dermatology.26

 

 

Dermatology Residency and the Transition to Advanced Dermatology Fellowships

Similar to the transition from medical school into dermatology residency, URM dermatology residents are either not applying to fellowships or are not getting in. In the 2018-2019 academic year, there were no Black, Hispanic, Native Hawaiian/Pacific Islander, or American Indian/Alaska Native Mohs micrographic surgery and dermatologic oncology fellows.19 Similarly, there were no Black, Native Hawaiian/Pacific Islander, or American Indian/Alaska Native dermatopathology fellows. There were 4 (6%) Hispanic dermatopathology fellows.19

There also is marked underrepresentation of minority groups—and minimal growth over time—in the dermatology procedural subspecialty. Whereas the percentage of female Mohs surgeons increased considerably from 1985 to 2005 (12.7% to 40.9%, respectively), the percentage of URM Mohs surgeons remained steady from 4.2% to 4.6%, respectively, and remained at 4.5% in 2014.30

There are no available data on the race/ethnicity of fellowship applicants, as these demographic data for the application process have not been consistently or traditionally collected. The reasons why there are so few URM dermatology fellows is not known; whether this is due to a lack of mentorship or whether other factors lead to residents not applying for advanced training needs further study. Financial factors related to prolonged training, which include lower salaries and delayed loan repayment, may present barriers to applying to fellowships.

Lack of URM Academic Faculty in Dermatology

At the academic faculty level, URM representation continues to worsen. Lett et al31 found that there is declining racial and ethnic representation in clinical academic medicine relative to US census data for 16 US medical specialties, including dermatology, with growing underrepresentation of Black and Hispanic faculty at the associate professor and full professor levels and underrepresentation in all faculty ranks. From 1970 to 2018, URM faculty in dermatology only increased from 4.8% to 7.4%, respectively. Non-URM female and male faculty members increased by 13.8 and 10.8 faculty members per year, respectively, while URM female and male faculty members increased by 1.2 and 0.8 faculty members per year, respectively.32

Underrepresentation of minorities seen in dermatology faculty may result from clinical demands, minority taxation (defined as the extensive service requirements uniquely experienced by URM faculty to disproportionately serve as representatives on academic committees and to mentor URM students), and barriers to academic promotion, which are challenges uniquely encountered by URMs in academic dermatology.33 Increased clinical demand may result from the fact that URM physicians are more likely to care for underserved populations, those of lower socioeconomic status, non-English–speaking patients, those on Medicaid, and those who are uninsured, which may impact renumeration. Minority tax experienced by URM faculty includes mentoring URM medical students, providing cultural expertise to departments and institutions, and participating in community service projects and outreach programs. Specifically, many institutional committees require the participation of a URM member, resulting in URM faculty members experiencing higher committee service burden. Many, if not all, of these responsibilities often are not compensated through salary or academic promotion.

A Call to Action

There are several steps that can be taken to create a pathway to dermatology that is inclusive, flexible, and supportive of URMs.

Increase early exposure to dermatology in medical school. Early exposure and mentorship opportunities are associated with higher rates of students pursuing specialty field careers.34 Increased early opportunities allow for URM students to consider and explore a career in dermatology; receive mentorship; and ensure that dermatology, including topics related to skin of color (SOC), is incorporated into their learning. The American Academy of Dermatology has contributed to these efforts by its presence at every national meeting of the Student National Medical Association and Latino Medical Student Association, as well as its involvement with Nth Dimensions, which offers various educational opportunities for URM medical students.

Implement equitable grading and holistic review processes in medical school. Racial/ethnic differences in clinical grading and standardized test scores in medical school demonstrate why holistic review of dermatology residency applicants is needed and why other metrics such as USMLE scores and AΩA status should be de-emphasized or eliminated when evaluating candidates. To support equity, many medical schools have eliminated honors grading, and some schools have eliminated AΩA distinction.

 

 

Increase diversity of dermatology residents and residency programs. Implicit bias training for a medical school admissions committee has been shown to increase diversity in medical school enrollment.35 Whether implicit bias training and other diversity training may benefit dermatology residency selection must be examined, including study of unintended consequences, such as reduced diversity, increased microaggressions toward minority colleagues, and the illusion of fairness.36-39 Increasing representation is not sufficient—creating inclusive residency training environments is a critical parallel aim. Prioritizing diversity in dermatology residency recruitment is imperative. Creating dermatology residency positions specifically for URM residents may be an important option, as done at the University of Pennsylvania (Philadelphia, Pennsylvania) and Duke University (Durham, North Carolina).

Create effective programs for URM mentorship. Due to the competitive nature of dermatology residency, the need for mentors in dermatology is critically vital for URM medical students, especially those without a home dermatology program at their medical school. Further development of formal mentorship and pipeline programs is essential at both the local and national levels. Some national examples of these initiatives include diversity mentorship programs offered by the American Academy of Dermatology, Skin of Color Society, Women’s Dermatologic Society, and Student National Medical Association. Many institutional programs also offer invaluable opportunities, such as the summer research fellowship at the University of California, San Francisco (UCSF); visiting clerkship grants for URMs at the University of Pennsylvania (Philadelphia, Pennsylvania) and Johns Hopkins University (Baltimore, Maryland); and integrated programs, such as the Visiting Elective Scholarship Program at UCSF, which provides funding and faculty mentorship for URM students completing an away rotation at UCSF.

Establish longitudinal skin-of-color curricula and increased opportunities for research. More robust SOC training may lead to an increasingly diverse workforce. It is important that medical student and dermatology resident and fellow education include training on SOC to ensure high-quality care to diverse patient populations, which also may enhance the knowledge of trainees, encourage clinical and research interest in this field, and reduce health care disparities. Increasing research opportunities and offering formalized longitudinal training in SOC as well as incorporating more diverse images in medical school education may foster greater interest in this field at a time when trainees are establishing their career interests. At present, there is considerable room for improvement. Nijhawan et al40 surveyed 63 dermatology chief residents and 41 program directors and found only 14.3% and 14.6%, respectively, reported having an expert who conducts clinic specializing in SOC. Only 52.4% and 65.9% reported having didactic sessions or lectures focused on SOC diseases, and 30.2% and 12.2% reported having a dedicated rotation for residents to gain experience in SOC.40 A more recent study showed that when faculty were asked to incorporate more SOC content into lectures, the most commonly identified barrier to implementation was a lack of SOC images.41 Additionally, there remains a paucity of published research on this topic, with SOC articles representing only 2.7% of the literature.42 These numbers demonstrate the continued need for a more inclusive and comprehensive curriculum in dermatology residency programs and more robust funding for SOC research.

Recruit and support URM faculty. Increasing diversity in dermatology residency programs likely will increase the number of potential URMs pursuing additional fellowship training and academic dermatology with active career mentorship and support. In addition, promoting faculty retention by combatting the progressive loss of URMs at all faculty levels is paramount. Mentorship for URM physicians has been shown to play a key role in the decision to pursue academic medicine as well as academic productivity and job satisfaction.43,44 The visibility, cultural competency, clinical work, academic productivity, and mentorship efforts that URM faculty provide are essential to enhancing patient care, teaching diverse groups of learners, and recruiting more diverse trainees. Protected time to participate in professional development opportunities has been shown to improve recruitment and retention of URM faculty and offer additional opportunities for junior faculty to find mentors.35,36 Incentivizing clinical care of underserved populations also may augment financial stability for URM physicians who choose to care for these patients. Finally, diversity work and community service should be legitimized and count toward faculty promotion.

Conclusion

There are numerous factors that contribute to the leaky pipeline in dermatology (eFigure). Many challenges that are unique to the URM population disadvantage these students from entering medical school, applying to dermatology residency, matching into dermatology fellowships, pursuing and staying in faculty positions, and achieving faculty advancement into leadership positions. With each progressive step along this trajectory, there is less minority representation. All dermatologists, regardless of race/ethnicity, need to play an active role and must prioritize diversity, equity, and inclusion efforts at all levels of education and training for the betterment of the specialty.

Schematic of the leaky pipeline in dermatology and potential action items and solutions at each stage of academic development
eFIGURE. Schematic of the leaky pipeline in dermatology and potential action items and solutions at each stage of academic development. Asterisk indicates unpublished data, Association of American Medical Colleges Diversity in Medicine: Facts and Figures, 2013.
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  38. Kaiser CR, Major B, Jurcevic I, et al. Presumed fair: ironic effects of organizational diversity structures. J Pers Soc Psychol. 2013;104:504-519. doi:10.1037/a0030838
  39. Nijhawan RI, Jacob SE, Woolery-Lloyd H. Skin of color education in dermatology residency programs: does residency training reflect the changing demographics of the United States? J Am Acad Dermatol. 2008;59:615-617.
  40. Jia JL, Gordon JS, Lester JC, et al. Integrating skin of color and sexual and gender minority content into dermatology residency curricula: a prospective program initiative [published online April 16, 2021]. J Am Acad Dermatol. doi:10.1016/j.jaad.2021.04.018
  41. Amuzie AU, Lia JL, Taylor SC, et al. Skin of color article representation in dermatology literature 2009-2019: higher citation counts and opportunities for inclusion [published online March 24, 2021]. J Am Acad Dermatol. doi:10.1016/j.jaad.2021.03.063
  42. Beech BM, Calles-Escandon J, Hairston KC, et al. Mentoring programs for underrepresented minority faculty in academic medical center: a systematic review of the literature. Acad Med. 2013;88:541-549. doi:10.1097/ACM.0b013e31828589e3
  43. Daley S, Wingard DL, Reznik V. Improving the retention of underrepresented minority faculty in academic medicine. J Natl Med Assoc. 2006;98:1435-1440. doi:10.1016/s0027-9684(15)31449-8
  44. Association of American Medical Colleges. US medical school faculty by sex, race/ethnicity, rank, and department, 2019. Published December 31, 2019. Accessed December 20, 2021. https://www.aamc.org/media/8476/download?attachment
References
  1. Dixon G, Kind T, Wright J, et al. Factors that influence the choice of academic pediatrics by underrepresented minorities. Pediatrics. 2019;144:E20182759. doi:10.1542/peds.2018-2759
  2. Yehia BR, Cronholm PF, Wilson N, et al. Mentorship and pursuit of academic medicine careers: a mixed methods study of residents from diverse backgrounds. BMC Med Educ. 2014:14:2-26. doi:10.1186/1472-6920-14-26
  3. Saha S, Guiton G, Wimmers PF, et al. Student body racial and ethnic composition and diversity-related outcomes in US medical schools. JAMA. 2008;300:1135-1145. doi:10.1001/jama.300.10.1135
  4. Hsu DY, Gordon K, Silverberg JI. The patient burden of psoriasis in the United States. J Am Acad Dermatol. 2016;75:33-41. doi:10.1016/j.jaad.2016.03.048
  5. Silverberg JI. Racial and ethnic disparities in atopic dermatitis. Curr Dermatol Rep. 2015;4:44-48.
  6. Buster KJ, Sevens EI, Elmets CA. Dermatologic health disparities. Dermatol Clin. 2012;30:53-59. doi:10.1016/j.det.2011.08.002
  7. Barbieri JS, Shin DB, Wang S, et al. Association of race/ethnicity with differences in health care use and treatment for acne. JAMA Dermatol. 2020;156:312-319. doi:10.1001/jamadermatol.2019.4818
  8. Smedley BD, Stith AY, Colburn L, et al. The Right Thing To Do, The Smart Thing to Do: Enhancing Diversity in the Health Professions. National Academies Press; 2001.
  9. Association of American Medical Colleges. Minorities in medical education: fact and figures 2019. Accessed December 9, 2021. https://www.aamc.org/datareports/workforce/report/diversity-medicine-facts-and-figures-2019
  10. Liaison Committee on Medical Education (LCME) standards on diversity. University of South Florida Health website. Accessed December 9, 2021. https://health.usf.edu/~/media/Files/Medicine/MD%20Program/Diversity/LCMEStandardsonDiversity1.ashx?la=en
  11. Granstein RD, Cornelius L, Shinkai K. Diversity in dermatology—a call for action. JAMA Dermatol. 2017;153:499-500. doi:10.1001/jamadermatol.2017.0296
  12. Lett LA, Murdock HM, Orji W, et al. Trends in racial/ethnic representation among US medical students. JAMA Netw Open. 2019;2:e1910490. doi:10.1001/jamanetworkopen.2019.10490
  13. Association of American Medical Colleges. Altering the course: Black males in medicine. Published 2015. Accessed December 8, 2021. https://store.aamc.org/downloadable/download/sample/sample_id/84/
  14. Barr DA, Gonzalez ME, Wanat SF. The leaky pipeline: factors associated with early decline in interest in premedical studies among underrepresented minority undergraduate students. Acad Med. 2008;83:5:503-511. doi:10.1097/ACM.0b013e31816bda16
  15. Flores RL. The rising gap between rich and poor: a look at the persistence of educational disparities in the United States and why we should worry. Cogent Soc Sci. 2017;3:1323698.
  16. Jackson D. Why am I behind? an examination of low income and minority students’ preparedness for college. McNair Sch J. 2012;13:121-138.
  17. Rothstein R. The racial achievement gap, segregated schools, andsegregated neighborhoods: a constitutional insult. Race Soc Probl. 2015;7:21-30.
  18. Association of American Medical Colleges. Residency Applicants From US MD Granting Medical Schools to ACGME-Accredited Programs by Specialty and Race/Ethnicity. Association of American Medical Colleges; 2017.
  19. Brotherton SE, Etzel SL. Graduate medical education, 2018-2019. JAMA. 2019;322:996-1016. doi:10.1001/jama.2019.10155
  20. Barnes LA, Bae GH, Nambudiri V. Sex and racial/ethnic diversity of US medical students and their exposure to dermatology programs. JAMA Dermatol. 2019;155:490-491. doi:10.1001/jamadermatol.2018.5025
  21. Soliman YS, Rzepecki AK, Guzman AK. Understanding perceived barriers of minority medical students pursuing a career in dermatology. JAMA Dermatol. 2019;155:252-254. doi:10.1001/jamadermatol.2018.4813
  22. Low D, Pollack SW, Liao Z, et al. Racial/ethnic disparities in clinical grading in medical school. Teach Learn Med. 2019;31:487-496. doi:10.1080/10401334.2019.1597724
  23. Rubright JD, Jodoin M, Barone MA. Examining demographics, prior academic performance and United States medical licensing examination scores. Acad Med. 2019;94;364-370. doi:10.1097/ACM.0000000000002366
  24. Boatright D, Ross D, O’Connor P, et al. Racial disparities in medical student membership in the alpha omega honor society. JAMA Intern Med. 2017;177:659-665. doi:10.1001/jamainternmed.2016.9623
  25. Gorouhi F, Alikhan A, Rezaei A, et al. Dermatology residency selection criteria with an emphasis on program characteristics: a national program director survey [published online March 17, 2014]. Dermatol Res Pract. doi:10.1155/2014/692760
  26. Vasquez R, Jeong H, Florez-Pollack S, et al. What are the barriers faced by underrepresented minorities applying to dermatology? a qualitative cross-sectional study of applicants applying to a large dermatology residency program. J Am Acad Dermatol. 2020;83:1770-1773. doi:10.1016/j.jaad.2020.03.067
  27. Results of the 2019 NRMP applicant survey by preferred specialty and applicant type. National Resident Matching Program website. Published July 2019. Accessed December 8, 2021. https://www.nrmp.org/wp-content/uploads/2019/06/Applicant-Survey-Report-2019.pdf
  28. Mansouri B, Walker GD, Mitchell J, et al. The cost of applying to dermatology residency: 2014 data estimates. J Am Acad Dermatol. 2016;74:754-756. doi:10.1016/j.jaad.2015.10.049
  29. Polacco MA, Lally J, Walls A, et al. Digging into debt: the financial burden associated with the otolaryngology match. Otolaryngol Head Neck Surg. 2017;12:1091-1096. doi:10.1177/0194599816686538
  30. Feng H, Feng PW, Geronemus RG. Diversity in the US Mohs micrographic surgery workforce. Dermatol Surg. 2020:46:1451-1455. doi:10.1097/DSS.0000000000002080
  31. Lett LA, Orji WU, Sebro R. Declining racial and ethnic representation in clinical academic medicine: a longitudinal study of 16 US medical specialties. PLoS ONE. 2018;13:e0207274. doi:10.1371/journal.pone.020727432. Xierali IM, Nivet MA, Pandya AG. US Dermatology department faculty diversity trends by sex and underrepresented-in-medicine status, 1970-2018. JAMA Dermatol. 2020;156:280-287. doi:10.1001/jamadermatol.2019.4297
  32. Okoye GA. Supporting underrepresented minority women in academic dermatology. Intl J Womens Dermatol. 2020;6:57-60. doi:10.1016/j.ijwd.2019.09.009
  33. Bernstein J, Dicaprio MR, Mehta S. The relationship between required medical school instruction in musculoskeletal medicine and application rates to orthopaedic surgery residency programs. J Bone Joint Surg Am. 2004;86:2335-2338. doi:10.2106/00004623-200410000-00031
  34. Capers Q, Clinchot D, McDougle L, et al. Implicit racial bias in medical school admissions. Acad Med. 2017;92:365-369. doi:10.1097/ACM.0000000000001388
  35. Dobbin F, Kalev A. Why diversity programs fail. Harvard Business Rev. 2016;52-60. Accessed December 8, 2021. https://hbr.org/2016/07/why-diversity-programs-fail
  36. Kalev A, Dobbin F, Kelly E. Best practices or best guesses? assessing the efficacy of corporate affirmative action and diversity policies. Am Sociol Rev. 2006;71:589-617.
  37. Sanchez JI, Medkik N. The effects of diversity awareness training on differential treatment. Group Organ Manag. 2004;29:517-536.
  38. Kaiser CR, Major B, Jurcevic I, et al. Presumed fair: ironic effects of organizational diversity structures. J Pers Soc Psychol. 2013;104:504-519. doi:10.1037/a0030838
  39. Nijhawan RI, Jacob SE, Woolery-Lloyd H. Skin of color education in dermatology residency programs: does residency training reflect the changing demographics of the United States? J Am Acad Dermatol. 2008;59:615-617.
  40. Jia JL, Gordon JS, Lester JC, et al. Integrating skin of color and sexual and gender minority content into dermatology residency curricula: a prospective program initiative [published online April 16, 2021]. J Am Acad Dermatol. doi:10.1016/j.jaad.2021.04.018
  41. Amuzie AU, Lia JL, Taylor SC, et al. Skin of color article representation in dermatology literature 2009-2019: higher citation counts and opportunities for inclusion [published online March 24, 2021]. J Am Acad Dermatol. doi:10.1016/j.jaad.2021.03.063
  42. Beech BM, Calles-Escandon J, Hairston KC, et al. Mentoring programs for underrepresented minority faculty in academic medical center: a systematic review of the literature. Acad Med. 2013;88:541-549. doi:10.1097/ACM.0b013e31828589e3
  43. Daley S, Wingard DL, Reznik V. Improving the retention of underrepresented minority faculty in academic medicine. J Natl Med Assoc. 2006;98:1435-1440. doi:10.1016/s0027-9684(15)31449-8
  44. Association of American Medical Colleges. US medical school faculty by sex, race/ethnicity, rank, and department, 2019. Published December 31, 2019. Accessed December 20, 2021. https://www.aamc.org/media/8476/download?attachment
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  • Dermatology remains the second least diverse specialty in medicine, which has important implications for the workforce and clinical excellence of the specialty.
  • Barriers presenting at different stages of medical education and training result in the loss of underrepresented minority (URM) learners pursuing or advancing careers in dermatology.
  • Understanding these barriers is the first step to creating and implementing important structural changes to the way we mentor, teach, and support URM students in the specialty.
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Teledermatology During the COVID-19 Pandemic: Lessons Learned and Future Directions

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Teledermatology During the COVID-19 Pandemic: Lessons Learned and Future Directions

Although teledermatology utilization in the United States traditionally has lagged behind other countries,1,2 the COVID-19 pandemic upended this trend by creating the need for a massive teledermatology experiment. Recently reported survey results from a large representative sample of US dermatologists (5000 participants) on perceptions of teledermatology during COVID-19 indicated that only 14.1% of participants used teledermatology prior to the COVID-19 pandemic vs 54.1% of dermatologists in Europe.2,3 Since the pandemic started, 97% of US dermatologists reported teledermatology use,3 demonstrating a huge shift in utilization. This trend is notable, as teledermatology has been shown to increase access to dermatology in underserved areas, reduce patient travel times, improve patient triage, and even reduce carbon footprints.1,4 Thus, to sustain the momentum, insights from the recent teledermatology experience during the pandemic should inform future development.

Notably, the COVID-19 pandemic led to a rapid shift in focus from store-and-forward teledermatology to live video–based models.1,2 Logistically, live video visits are challenging, require more time and resources, and often are diagnostically limited, with concerns regarding technology, connectivity, reimbursement, and appropriate use.3 Prior to COVID-19, formal Health Insurance Portability and Accountability Act–compliant teledermatology platforms often were costly to establish and maintain, largely relegating use to academic centers and Veterans Affairs hospitals. Thus, many fewer private practice dermatologists had used teledermatology compared to academic dermatologists in the United States (11.4% vs 27.6%).3 Government regulations—a key barrier to the adoption of teledermatology in private practice before COVID-19—were greatly relaxed during the pandemic. The Centers for Medicare and Medicaid Services removed restrictions on where patients could be seen, improved reimbursement for video visits, and allowed the use of platforms that are not Health Insurance Portability and Accountability Act compliant. Many states also relaxed medical licensing rules.

Overall, the general outlook on telehealth seems positive. Reimbursement has been found to be a primary factor in dermatologists’ willingness to use teledermatology.3 Thus, sustainable use of teledermatology likely will depend on continued reimbursement parity for live video as well as store-and-forward consultations, which have several advantages but currently are de-incentivized by low reimbursement. The survey also found that 70% of respondents felt that teledermatology use will continue after COVID-19, while 58% intended to continue use—nearly 5-fold more than before the pandemic.3 We suspect the discrepancy between participants’ predictions regarding future use of teledermatology and their personal intent to use it highlights perceived barriers and limitations of the long-term success of teledermatology. Aside from reimbursement, connectivity and functionality were common concerns, emphasizing the need for innovative technological solutions.3 Moving forward, we anticipate that dermatologists will need to establish consistent workflows to establish consistent triage for the most appropriate visit—in-person visits vs teledermatology, which may include augmented, intelligence-enhanced solutions. Similar to prior clinician perspectives about which types of visits are conducive to teledermatology,2 most survey participants believed virtual visits were effective for acne, routine follow-ups, medication monitoring, and some inflammatory conditions.3

Importantly, we must be mindful of patients who may be left behind by the digital divide, such as those with lack of access to a smartphone or the internet, language barriers, or limited telehealth experience.5 Systems should be designed to provide these patients with technologic and health literacy aid or alternate modalities to access care. For example, structured methods could be introduced to provide training and instructions on how to access phone applications, computer-based programs, and more. Likewise, for those with hearing or vision deficits, it will be important to improve sound amplification and accessibility for headphones or hearing aid connectivity, as well as appropriate font size, button size, and application navigation. In remote areas, existing clinics may be used to help field specialty consultation teleconferences. Certainly, applications and platforms devised for teledermatology must be designed to serve diverse patient groups, with special consideration for the elderly, those who speak languages other than English, and those with disabilities that may make telehealth use more challenging.

Large-scale regulatory changes and reimbursement parity can have a substantial impact on future teledermatology use. Advocacy efforts continue to push for fair valuation of telemedicine, coverage of store-and-forward teledermatology codes, and coverage for all models of care. It is imperative for the dermatology community to continue discussions on implementation and methodology to best leverage this technology for the most patient benefit.

References
  1. Tensen E, van der Heijden JP, Jaspers MWM, et al. Two decades of teledermatology: current status and integration in national healthcare systems. Curr Dermatol Rep. 2016;5:96-104.
  2. Moscarella E, Pasquali P, Cinotti E, et al. A survey on teledermatology use and doctors’ perception in times of COVID-19 [published online August 17, 2020]. J Eur Acad Dermatol Venereol. 2020;34:E772-E773.
  3. Kennedy J, Arey S, Hopkins Z, et al. Dermatologist perceptions of teledermatology implementation and future use after COVID-19: demographics, barriers, and insights. JAMA Dermatol. 2021;157:595-597.
  4. Bonsall A. Unleashing carbon emissions savings with regular teledermatology clinics. Clin Exp Dermatol. 2021;46:574-575.
  5. Bakhtiar M, Elbuluk N, Lipoff JB. The digital divide: how COVID-19’s telemedicine expansion could exacerbate disparities. J Am Acad Dermatol. 2020;83:E345-E346.
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Author and Disclosure Information

Dr. Hopkins is from the Department of Dermatology, Broward Health Medical Center, Fort Lauderdale, Florida. Dr. Han is from the Department of Dermatology, Northwell Health, New Hyde Park, New York. Dr. Tejasvi, Ms. Deda, and Ms. Goldberg are from the Department of Dermatology, University of Michigan, Ann Arbor. Mr. Kennedy, Ms. Arey, and Dr. Farah are from the Division of Dermatology, SUNY Upstate Medical University, Syracuse, New York. Drs. Mathis and Secrest are from the Departments of Dermatology and Population Sciences, University of Utah, Salt Lake City. Ms. Balk and Dr. Miller are from the American Academy of Dermatology, Chicago, Illinois. Dr. Lipoff is from the Department of Dermatology, Perelman School of Medicine, University of Pennsylvania, Philadelphia.

Drs. Hopkins, Mathis, and Secrest, as well as Ms. Deda, Ms. Goldberg, Mr. Kennedy, and Ms. Arey report no conflict of interest. Drs. Han, Tejasvi, Farah, and Lipoff are current or recent members of the American Academy of Dermatology Teledermatology Task Force. Dr. Lipoff also is a member of the American Academy of Dermatology Ad Hoc Task Force on COVID-19 and has served as a paid consultant on telemedicine for Havas Life Medicom and as a telemedicine advisor for AcneAway, a direct-to-consumer teledermatology start-up. Ms. Balk and Dr. Miller are employees of the American Academy of Dermatology.

Correspondence: Jules B. Lipoff, MD, Department of Dermatology, University of Pennsylvania, Penn Medicine University City, 3737 Market St, Ste 1100, Philadelphia, PA 19104 (jules.lipoff@pennmedicine.upenn.edu).

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Dr. Hopkins is from the Department of Dermatology, Broward Health Medical Center, Fort Lauderdale, Florida. Dr. Han is from the Department of Dermatology, Northwell Health, New Hyde Park, New York. Dr. Tejasvi, Ms. Deda, and Ms. Goldberg are from the Department of Dermatology, University of Michigan, Ann Arbor. Mr. Kennedy, Ms. Arey, and Dr. Farah are from the Division of Dermatology, SUNY Upstate Medical University, Syracuse, New York. Drs. Mathis and Secrest are from the Departments of Dermatology and Population Sciences, University of Utah, Salt Lake City. Ms. Balk and Dr. Miller are from the American Academy of Dermatology, Chicago, Illinois. Dr. Lipoff is from the Department of Dermatology, Perelman School of Medicine, University of Pennsylvania, Philadelphia.

Drs. Hopkins, Mathis, and Secrest, as well as Ms. Deda, Ms. Goldberg, Mr. Kennedy, and Ms. Arey report no conflict of interest. Drs. Han, Tejasvi, Farah, and Lipoff are current or recent members of the American Academy of Dermatology Teledermatology Task Force. Dr. Lipoff also is a member of the American Academy of Dermatology Ad Hoc Task Force on COVID-19 and has served as a paid consultant on telemedicine for Havas Life Medicom and as a telemedicine advisor for AcneAway, a direct-to-consumer teledermatology start-up. Ms. Balk and Dr. Miller are employees of the American Academy of Dermatology.

Correspondence: Jules B. Lipoff, MD, Department of Dermatology, University of Pennsylvania, Penn Medicine University City, 3737 Market St, Ste 1100, Philadelphia, PA 19104 (jules.lipoff@pennmedicine.upenn.edu).

Author and Disclosure Information

Dr. Hopkins is from the Department of Dermatology, Broward Health Medical Center, Fort Lauderdale, Florida. Dr. Han is from the Department of Dermatology, Northwell Health, New Hyde Park, New York. Dr. Tejasvi, Ms. Deda, and Ms. Goldberg are from the Department of Dermatology, University of Michigan, Ann Arbor. Mr. Kennedy, Ms. Arey, and Dr. Farah are from the Division of Dermatology, SUNY Upstate Medical University, Syracuse, New York. Drs. Mathis and Secrest are from the Departments of Dermatology and Population Sciences, University of Utah, Salt Lake City. Ms. Balk and Dr. Miller are from the American Academy of Dermatology, Chicago, Illinois. Dr. Lipoff is from the Department of Dermatology, Perelman School of Medicine, University of Pennsylvania, Philadelphia.

Drs. Hopkins, Mathis, and Secrest, as well as Ms. Deda, Ms. Goldberg, Mr. Kennedy, and Ms. Arey report no conflict of interest. Drs. Han, Tejasvi, Farah, and Lipoff are current or recent members of the American Academy of Dermatology Teledermatology Task Force. Dr. Lipoff also is a member of the American Academy of Dermatology Ad Hoc Task Force on COVID-19 and has served as a paid consultant on telemedicine for Havas Life Medicom and as a telemedicine advisor for AcneAway, a direct-to-consumer teledermatology start-up. Ms. Balk and Dr. Miller are employees of the American Academy of Dermatology.

Correspondence: Jules B. Lipoff, MD, Department of Dermatology, University of Pennsylvania, Penn Medicine University City, 3737 Market St, Ste 1100, Philadelphia, PA 19104 (jules.lipoff@pennmedicine.upenn.edu).

Article PDF
Article PDF

Although teledermatology utilization in the United States traditionally has lagged behind other countries,1,2 the COVID-19 pandemic upended this trend by creating the need for a massive teledermatology experiment. Recently reported survey results from a large representative sample of US dermatologists (5000 participants) on perceptions of teledermatology during COVID-19 indicated that only 14.1% of participants used teledermatology prior to the COVID-19 pandemic vs 54.1% of dermatologists in Europe.2,3 Since the pandemic started, 97% of US dermatologists reported teledermatology use,3 demonstrating a huge shift in utilization. This trend is notable, as teledermatology has been shown to increase access to dermatology in underserved areas, reduce patient travel times, improve patient triage, and even reduce carbon footprints.1,4 Thus, to sustain the momentum, insights from the recent teledermatology experience during the pandemic should inform future development.

Notably, the COVID-19 pandemic led to a rapid shift in focus from store-and-forward teledermatology to live video–based models.1,2 Logistically, live video visits are challenging, require more time and resources, and often are diagnostically limited, with concerns regarding technology, connectivity, reimbursement, and appropriate use.3 Prior to COVID-19, formal Health Insurance Portability and Accountability Act–compliant teledermatology platforms often were costly to establish and maintain, largely relegating use to academic centers and Veterans Affairs hospitals. Thus, many fewer private practice dermatologists had used teledermatology compared to academic dermatologists in the United States (11.4% vs 27.6%).3 Government regulations—a key barrier to the adoption of teledermatology in private practice before COVID-19—were greatly relaxed during the pandemic. The Centers for Medicare and Medicaid Services removed restrictions on where patients could be seen, improved reimbursement for video visits, and allowed the use of platforms that are not Health Insurance Portability and Accountability Act compliant. Many states also relaxed medical licensing rules.

Overall, the general outlook on telehealth seems positive. Reimbursement has been found to be a primary factor in dermatologists’ willingness to use teledermatology.3 Thus, sustainable use of teledermatology likely will depend on continued reimbursement parity for live video as well as store-and-forward consultations, which have several advantages but currently are de-incentivized by low reimbursement. The survey also found that 70% of respondents felt that teledermatology use will continue after COVID-19, while 58% intended to continue use—nearly 5-fold more than before the pandemic.3 We suspect the discrepancy between participants’ predictions regarding future use of teledermatology and their personal intent to use it highlights perceived barriers and limitations of the long-term success of teledermatology. Aside from reimbursement, connectivity and functionality were common concerns, emphasizing the need for innovative technological solutions.3 Moving forward, we anticipate that dermatologists will need to establish consistent workflows to establish consistent triage for the most appropriate visit—in-person visits vs teledermatology, which may include augmented, intelligence-enhanced solutions. Similar to prior clinician perspectives about which types of visits are conducive to teledermatology,2 most survey participants believed virtual visits were effective for acne, routine follow-ups, medication monitoring, and some inflammatory conditions.3

Importantly, we must be mindful of patients who may be left behind by the digital divide, such as those with lack of access to a smartphone or the internet, language barriers, or limited telehealth experience.5 Systems should be designed to provide these patients with technologic and health literacy aid or alternate modalities to access care. For example, structured methods could be introduced to provide training and instructions on how to access phone applications, computer-based programs, and more. Likewise, for those with hearing or vision deficits, it will be important to improve sound amplification and accessibility for headphones or hearing aid connectivity, as well as appropriate font size, button size, and application navigation. In remote areas, existing clinics may be used to help field specialty consultation teleconferences. Certainly, applications and platforms devised for teledermatology must be designed to serve diverse patient groups, with special consideration for the elderly, those who speak languages other than English, and those with disabilities that may make telehealth use more challenging.

Large-scale regulatory changes and reimbursement parity can have a substantial impact on future teledermatology use. Advocacy efforts continue to push for fair valuation of telemedicine, coverage of store-and-forward teledermatology codes, and coverage for all models of care. It is imperative for the dermatology community to continue discussions on implementation and methodology to best leverage this technology for the most patient benefit.

Although teledermatology utilization in the United States traditionally has lagged behind other countries,1,2 the COVID-19 pandemic upended this trend by creating the need for a massive teledermatology experiment. Recently reported survey results from a large representative sample of US dermatologists (5000 participants) on perceptions of teledermatology during COVID-19 indicated that only 14.1% of participants used teledermatology prior to the COVID-19 pandemic vs 54.1% of dermatologists in Europe.2,3 Since the pandemic started, 97% of US dermatologists reported teledermatology use,3 demonstrating a huge shift in utilization. This trend is notable, as teledermatology has been shown to increase access to dermatology in underserved areas, reduce patient travel times, improve patient triage, and even reduce carbon footprints.1,4 Thus, to sustain the momentum, insights from the recent teledermatology experience during the pandemic should inform future development.

Notably, the COVID-19 pandemic led to a rapid shift in focus from store-and-forward teledermatology to live video–based models.1,2 Logistically, live video visits are challenging, require more time and resources, and often are diagnostically limited, with concerns regarding technology, connectivity, reimbursement, and appropriate use.3 Prior to COVID-19, formal Health Insurance Portability and Accountability Act–compliant teledermatology platforms often were costly to establish and maintain, largely relegating use to academic centers and Veterans Affairs hospitals. Thus, many fewer private practice dermatologists had used teledermatology compared to academic dermatologists in the United States (11.4% vs 27.6%).3 Government regulations—a key barrier to the adoption of teledermatology in private practice before COVID-19—were greatly relaxed during the pandemic. The Centers for Medicare and Medicaid Services removed restrictions on where patients could be seen, improved reimbursement for video visits, and allowed the use of platforms that are not Health Insurance Portability and Accountability Act compliant. Many states also relaxed medical licensing rules.

Overall, the general outlook on telehealth seems positive. Reimbursement has been found to be a primary factor in dermatologists’ willingness to use teledermatology.3 Thus, sustainable use of teledermatology likely will depend on continued reimbursement parity for live video as well as store-and-forward consultations, which have several advantages but currently are de-incentivized by low reimbursement. The survey also found that 70% of respondents felt that teledermatology use will continue after COVID-19, while 58% intended to continue use—nearly 5-fold more than before the pandemic.3 We suspect the discrepancy between participants’ predictions regarding future use of teledermatology and their personal intent to use it highlights perceived barriers and limitations of the long-term success of teledermatology. Aside from reimbursement, connectivity and functionality were common concerns, emphasizing the need for innovative technological solutions.3 Moving forward, we anticipate that dermatologists will need to establish consistent workflows to establish consistent triage for the most appropriate visit—in-person visits vs teledermatology, which may include augmented, intelligence-enhanced solutions. Similar to prior clinician perspectives about which types of visits are conducive to teledermatology,2 most survey participants believed virtual visits were effective for acne, routine follow-ups, medication monitoring, and some inflammatory conditions.3

Importantly, we must be mindful of patients who may be left behind by the digital divide, such as those with lack of access to a smartphone or the internet, language barriers, or limited telehealth experience.5 Systems should be designed to provide these patients with technologic and health literacy aid or alternate modalities to access care. For example, structured methods could be introduced to provide training and instructions on how to access phone applications, computer-based programs, and more. Likewise, for those with hearing or vision deficits, it will be important to improve sound amplification and accessibility for headphones or hearing aid connectivity, as well as appropriate font size, button size, and application navigation. In remote areas, existing clinics may be used to help field specialty consultation teleconferences. Certainly, applications and platforms devised for teledermatology must be designed to serve diverse patient groups, with special consideration for the elderly, those who speak languages other than English, and those with disabilities that may make telehealth use more challenging.

Large-scale regulatory changes and reimbursement parity can have a substantial impact on future teledermatology use. Advocacy efforts continue to push for fair valuation of telemedicine, coverage of store-and-forward teledermatology codes, and coverage for all models of care. It is imperative for the dermatology community to continue discussions on implementation and methodology to best leverage this technology for the most patient benefit.

References
  1. Tensen E, van der Heijden JP, Jaspers MWM, et al. Two decades of teledermatology: current status and integration in national healthcare systems. Curr Dermatol Rep. 2016;5:96-104.
  2. Moscarella E, Pasquali P, Cinotti E, et al. A survey on teledermatology use and doctors’ perception in times of COVID-19 [published online August 17, 2020]. J Eur Acad Dermatol Venereol. 2020;34:E772-E773.
  3. Kennedy J, Arey S, Hopkins Z, et al. Dermatologist perceptions of teledermatology implementation and future use after COVID-19: demographics, barriers, and insights. JAMA Dermatol. 2021;157:595-597.
  4. Bonsall A. Unleashing carbon emissions savings with regular teledermatology clinics. Clin Exp Dermatol. 2021;46:574-575.
  5. Bakhtiar M, Elbuluk N, Lipoff JB. The digital divide: how COVID-19’s telemedicine expansion could exacerbate disparities. J Am Acad Dermatol. 2020;83:E345-E346.
References
  1. Tensen E, van der Heijden JP, Jaspers MWM, et al. Two decades of teledermatology: current status and integration in national healthcare systems. Curr Dermatol Rep. 2016;5:96-104.
  2. Moscarella E, Pasquali P, Cinotti E, et al. A survey on teledermatology use and doctors’ perception in times of COVID-19 [published online August 17, 2020]. J Eur Acad Dermatol Venereol. 2020;34:E772-E773.
  3. Kennedy J, Arey S, Hopkins Z, et al. Dermatologist perceptions of teledermatology implementation and future use after COVID-19: demographics, barriers, and insights. JAMA Dermatol. 2021;157:595-597.
  4. Bonsall A. Unleashing carbon emissions savings with regular teledermatology clinics. Clin Exp Dermatol. 2021;46:574-575.
  5. Bakhtiar M, Elbuluk N, Lipoff JB. The digital divide: how COVID-19’s telemedicine expansion could exacerbate disparities. J Am Acad Dermatol. 2020;83:E345-E346.
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Views and Beliefs of Vitiligo Patients in Online Discussion Forums: A Qualitative Study

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Views and Beliefs of Vitiligo Patients in Online Discussion Forums: A Qualitative Study

Vitiligo is a chronic dermatologic condition that negatively affects quality of life (QOL), with substantial burden on the psychosocial well-being of patients.1 There is no cure, and current treatment modalities are aimed at controlling the chronic relapsing condition.1-3 Despite topical and cosmetic treatments for stabilization and repigmentation, vitiligo remains unpredictable.3

All genders, races, ethnicities, and socioeconomic classes are equally affected.4 The underlying etiology of vitiligo remains unknown to a great extent and is more poorly understood by the general public compared with other skin diseases (eg, acne).5 Patients with vitiligo experience social withdrawal, decreased sense of self-esteem, anxiety, depression, and suicidal ideation.5,6 Stigmatization has the greatest impact on QOL, with strong correlations between avoidance behaviors and lesion concealment.6-8 Although the condition is especially disfiguring for darker skin types, lighter skin types also are substantially affected, with similar overall self-reported stress.6,7

Individuals with chronic illnesses such as vitiligo turn to online communities for health information and social support, commiserating with others who have the same condition.9,10 Online forums are platforms for asynchronous peer-to-peer exchange of disease-related information for better management of long-term disease.11 Moreover, of all available internet resources, online forum posts are the most commonly accessed source of information (91%) for patients following visits with their doctors.12

Qualitative research involving chronic skin conditions and the information exchanged in online forums has been conducted for patients with acne, psoriasis, and atopic dermatitis, but not for patients with vitiligo.13-16 Although online questionnaires have been administered to patients with vitiligo, the content within online forums is not well characterized.2,17

The purpose of this qualitative study was to evaluate the online content exchanged by individuals with vitiligo to better understand the general attitudes and help-seeking behaviors in online forums.

Methods

Study Design—This qualitative study sought to investigate health beliefs and messages about vitiligo posted by users in US-based online discussion forums. An interpretive research paradigm was utilized so that all content collected in online forums were the views expressed by individuals.18-20 An integrated approach was used in the development of the coding manual, with pre-established major themes and subthemes as a guiding framework.16,21,22 We adhered to an inductive grounded method by means of de novo line-by-line coding, such that we had flexibility for new subthemes to emerge throughout the duration of the entire coding process.23

Individual posts and subsequent replies embedded within public online forums were used as the collected data source. Google was utilized as the primary search engine to identify forums pertaining to vitiligo, as 80% of US adults with chronic disease report that their inquiries for health information start with Google, Bing, or Yahoo.24 The institutional review board at the Wake Forest School of Medicine (Winston-Salem, North Carolina) granted approval of the study (IRB00063073). Online forums were considered “property” of the public domain and were accessible to all, eliminating the need for written informed consent.24-26

 

 

Search Criteria—We conducted our forum search in February 2020 with a systematic approach using predetermined phrases—online forum vitiligo support, vitiligo online message board, and vitiligo forums—which yielded more than 358,171 total results (eTable 1). Threads were identified in chronological order (from newest to oldest) based on how they appeared during each internet search, and all Google results for the respective search phrases were reviewed. Dates of selected threads ranged from 2005 to 2020. Only sites with US domains were included. Posts that either included views and understandings of vitiligo or belonged to a thread that contained a vitiligo discussion were deemed relevant for inclusion. Forums were excluded if registration or means of payment was required to view posts, if there were fewer than 2 user replies to a thread, if threads contained patient photographs, or if no posts had been made in the last 2 years (rendering the thread inactive). No social media platforms, such as Facebook, or formal online platforms, such as MyVitiligoTeam, were included in the search. A no-fee-for-access was chosen for this study, as the majority of those with a chronic condition who encounter a required paywall find the information elsewhere.25

Search Strategy for Online Forums Related to Vitiligo

Data Analysis—A total of 39 online forums were deemed relevant to the topic of vitiligo; 9 of them met inclusion criteria (eTable 2). The messages within the forums were copied verbatim into a password-encrypted text document, and usernames in the threads were de-identified, ensuring user confidentiality.

Online Forums Meeting Inclusion Criteria

An inductive thematic analysis was utilized to explore the views and beliefs of online forum users discussing vitiligo. One author (M.B.G.) read the extracted message threads, developed an initial codebook, and established a finalized version with the agreement of another author (A.M.B.)(eTable 3). The forums were independently coded (M.B.G. and A.M.B.) in a line-by-line manner according to the codebook. Discrepancies were documented and resolved. Data saturation was adequately achieved, such that no new themes emerged during the iterative coding process. NVivo was used for qualitative analysis.

Code Structure: Understanding the Beliefs and Content of Information Exchanged by Individuals in Online Forum Discussions on Vitiligo

Results

Nine forums met inclusion criteria, comprising 105 pages of text. There were 61 total discussion threads, with 382 anonymous contributing users. Most users initiated a thread by posting either a question, an advice statement, or a request for help. The psychosocial impact of the disease permeated multiple domains,including personal relationships and daily life. Several threads discussed treatment, including effective camouflage and makeup, as well as peer validation of physician-prescribed treatments, along with threads dedicated to “cures” or homeopathy regimens. In several instances, commercial product endorsement, testimonials, and marketing links were reposted by the same user multiple times.

Inductive thematic analysis highlighted diverse themes and subthemes related to the beliefs and perspectives of users with vitiligo or with relatives or friends with vitiligo: psychosocial impact, disease management and camouflage/concealment, alternative medicine/homeopathy/cures, interactions with the public and health care providers, and skin tone and race. Quotes from individuals were included to demonstrate themes and subthemes.

Psychosocial Impact: QOL, Sources of Support, and Coping—There was a broad range of comments on how patients cope with and view their vitiligo. Some individuals felt vitiligo made them special, and others were at peace with and accepted their condition. In contrast, others reported the disease had devastated them and interfered with relationships. Individuals shared their stories of grief and hardships through childhood and adulthood and their concerns, especially on affected visible areas or the potential for disease progression. Users were vocal about how vitiligo affected their daily routines and lives, sharing how they felt uncomfortable outside the home, no longer engaged in swimming or exposing their legs, and preferred to stay inside instead. Some users adopted a “tough love” approach to coping, sharing how they have learned to either embrace their vitiligo or “live with it.” Some examples include:

“My best advice is go with the flow, vitiligo is not the worst thing that can happen.”

 

 

“I hate my life with vitiligo yet really I feel so selfish that there is much worse suffering in the world than a few white patches.”

Other advice was very practical:

“I hope it isn’t vanity that is tearing you apart because that is only skin deep. Make a fashion statement with hats.”

Some users acknowledged and adopted the mantra that vitiligo is not a somatic condition or “physical ailment,” while others emphasized its pervasive psychological burden:

“I still deal with this psychologically . . . You must keep a positive attitude and frame of mind . . . Vitiligo will not kill you, but you do need to stay strong and keep your head up emotionally.”

“I am just really thankful that I have a disease that will not kill me or that has [not] affected me physically at all. I consider myself lucky.”

Disease Management: Treatment, Vitiligo Course, Advice-Seeking, Camouflage—The range of information discussed for treatment was highly variable. There were many accounts in which users advised others to seek professional help, namely that of a dermatologist, for a formal assessment. Many expressed frustrations with treatments and their ineffectiveness, to which the majority of users said to consult with a professional and to remain patient and hopeful/optimistic:

“The best thing to do would be to take an appointment with a dermatologist and have the discoloration checked out. That’s the only way to know whether it is vitiligo or not.”

“My way of dealing with it is to gain control by camouflage.”

“The calming effect of being in control of my vitiligo, whether with concealers, self-tan or anything else, has stopped my feelings of despair.”

 

 

Beliefs on Alternative Medicine: Homeopathy and Alternative Regimens—Although some threads started with a post asking for the best treatments, others initiated a discussion by posting “best herbal treatments for cure” or “how to cure my vitiligo,” emphasizing the beliefs and wishes for a cure for vitiligo. Alternative therapies that users endorsed included apple cider vinegar, toothpaste, vitamins, and Ayurvedic treatment, among others. Dietary plans were popular, with users claiming success with dietary alterations in stopping and preventing lesion progression. For example, individuals felt that avoidance of sugar, meat, dairy, and citrus fruits or drinks and consumption of only filtered water were crucial to preventing further lesion spread and resulted in their “cure”:

“Don’t eat chocolate, wine (made of grapes), coffee, or tea if you don’t want to have vitiligo or let it get worse. Take Vitamin B, biotin, and nuts for Vitamin E.”

Other dangerous messages pitted treatments by health professionals against beliefs in homeopathy:

“I feel that vitiligo treatment is all in your diet and vitamins. All that medicine and UV lights is a no-no . . .w ith every medicine there is a side effect. The doctors could be healing your vitiligo and severely damaging you inside and out, and you won’t know until years later.”

There was a minor presence of users advising against homeopathy and the associated misinformation and inaccurate claims on curing vitiligo, though this group was small in comparison to the number of users posting outlandish claims on cure:

“There is no cure . . . It’s where your immune system attacks your skin cells causing loss of pigmentation. The skin that has lost the pigmentation can’t be reversed.”

Interactions With the Public and Health Care Providers—Those with vitiligo encounter unique situations in public and in their daily lives. Many of the accounts shared anecdotal stories on how patients have handled the stigma and discrimination faced:

“I have had to face discrimination at school, public places, college, functions, and every new person I have met has asked me this: ‘how did this happen?’”

Those with vitiligo even stated how they wished others would deal with their condition out in public, hoping that others would directly ask what the lesions were instead of the more hurtful staring. There were many stories in which users said others feel vitiligo was contagious or “dirty” and stressed that the condition is not infectious:

“I refer to myself as ‘camo-man’ and reassure people I come into contact with that it is not contagious.”

“Once I was eating at a restaurant . . . and a little girl said to her mom, ‘Look, Mom, that lady doesn’t wash her arms, look how dirty they are.’ That just broke my heart.”

 

 

Skin Tone and Implications—The belief that vitiligo lesions are less dramatic or less anxiety provoking for individuals with lighter skin was noted by users themselves and by health care providers in certain cases. Skin tone and its impact on QOL was confusing and contentious. Some users with fair skin stated their vitiligo was “less of an annoyance” or “less obvious” compared with individuals with darker complexions. Conversely, other accounts of self-reported White users vehemently stressed the anxieties felt by depigmented lesions, despite being “already white at baseline.”

“Was told by my dermatologist (upon diagnosis) that ‘You’re lucky you’re not African American—it shows up on them much worse. You’re so fair, it doesn’t really matter.’

“You didn’t say what race you are. I could imagine it has a bigger impact if you are anything other than White.”

Comment

Patients Looking for Cures—The general attitude within the forums was uplifting and encouraging, with users detailing how they respond to others in public and sharing their personal perspectives. We found a mix of information regarding disease management and treatment of vitiligo. Overall, there was uncertainty about treatments, with individuals expressing concern that their treatments were ineffective or had failed or that better alternatives would be more suitable for their condition. We found many anecdotal endorsements of homeopathic remedies for vitiligo, with users boasting that their disease had not only been cured but had never returned. Some users completely denounced these statements, while other threads seemed to revolve completely around “cure” discussions with no dissenting voices. The number of discussions related to homeopathy was concerning. Furthermore, there often were no moderators within threads to remove cure-related content, whether commercially endorsed or anecdotal. It is plausible that supplements and vitamins recommended by some physicians may be incorrectly interpreted as a “cure” in online discussions. Our findings are consistent with prior reports that forums are a platform to express dissatisfaction with treatment and the need for additional treatment options.15,22

Concern Expressed by Health Care Providers—Prior qualitative research has described how patients with chronic dermatologic conditions believe that health care providers minimize patients’ psychological distress.27,28 We found several accounts in which an individual had explicitly stated their provider had “belittled” the extent and impact of vitiligo when comparing skin phototypes. This suggests either that physicians underestimate the impact of vitiligo on their patients or that physicians are not expressing enough empathic concern about the impact the condition has on those affected.

Cosmetic Aspects of Vitiligo—Few clinical trials have investigated QOL and cosmetic acceptability of treatments as outcome measures.29 We found several instances in which users with vitiligo had reported being dismissed as having a “cosmetic disease,” consistent with other work demonstrating the negative impact on such dismissals.22 Moreover, concealment and camouflage techniques frequently were discussed, demonstrating the relevance of cosmetic management as an important research topic.

Trustworthy Sources of Health Information—Patients still view physicians as trustworthy and a key source of health care information and advice.30-32 Patients with vitiligo who have been directed to reliable information sources often express gratitude22 and want health professionals to remain an important source in their health information-seeking.31 Given the range in information discussed online, it may be valuable to invite patients to share what information they have encountered online.

 

 

Our study highlights the conflicting health information and advice shared by users in online forums, complicating an already psychologically burdensome condition. Guiding patients to credible, moderated sites and resources that are accurate, understandable, and easy to access may help dispel the conflicting messages and stories discussed in the online community.

Study Strengths and Limitations—Limitations included reporting bias and reliance on self-reported information on the diagnosis and extent of individuals’ vitiligo. Excluding social media websites and platforms from the data collection is a limitation to comprehensively assessing the topic of internet users with vitiligo. Many social media platforms direct patients and their family members to support groups and therefore may have excluded these particular individuals. Social media platforms were excluded from our research owing to the prerequisite of creating user accounts or registering as an online member. Our inclusion criteria were specific to forums that did not require registering or creating an account and were therefore freely accessible to all internet viewers. There is an inherent lack of context present in online forums, preventing data collection on individuals’ demographics and socioeconomic backgrounds. However, anonymity may have allowed individuals to express their thoughts more freely.

An integrated approach, along with our sampling method of online forums not requiring registration, allows for greater transferability and understanding of the health needs of the general public with vitiligo.

Conclusion

Individuals with vitiligo continue to seek peer psychosocial support for the physical and emotional management of their disease. Counseling those with vitiligo about cosmetic concealment options, homeopathy, and treatment scams remains paramount. Directing patients to evidence-based resources, along with providing structured sources of support, may help to improve the psychosocial burden and QOL experienced by patients with vitiligo. Connecting patients with local and national support groups moderated by physicians, such as the Global Vitiligo Foundation (https://globalvitiligofoundation.org/), may provide benefit to patients with vitiligo.

References
  1. Yaghoobi R, Omidian M, Bagherani N. Vitiligo: a review of the published work. J Dermatol. 2011;38:419-431.
  2. Ezzedine K, Sheth V, Rodrigues M, et al. Vitiligo is not a cosmetic disease. J Am Acad Dermatol. 2015;73:883-885.
  3. Faria AR, Tarlé RG, Dellatorre G, et al. Vitiligo—part 2—classification, histopathology and treatment. An Bras Dermatol. 2014;89:784-790.
  4. Alkhateeb A, Fain PR, Thody A, et al. Epidemiology of vitiligo and associated autoimmune diseases in Caucasian probands and their families. Pigment Cell Res. 2003;16:208-214.
  5. Nguyen CM, Beroukhim K, Danesh MJ, et al. The psychosocial impact of acne, vitiligo, and psoriasis: a review. Clin Cosmet Investig Dermatol. 2016;9:383-392.
  6. Ezzedine K, Eleftheriadou V, Whitton M, et al. Vitiligo. Lancet. 2015;386:74-84.
  7. Grimes PE, Billips M. Childhood vitiligo: clinical spectrum and therapeutic approaches. In: Hann SK, Nordlund JJ, eds. Vitiligo: A Monograph on the Basic and Clinical Science. Blackwell Science; 2000.
  8. Sawant NS, Vanjari NA, Khopkar U. Gender differences in depression, coping, stigma, and quality of life in patients of vitiligo. Dermatol Res Pract. 2019;2019:6879412.
  9. Liu Y, Kornfield R, Shaw BR, et al. When support is needed: social support solicitation and provision in an online alcohol use disorder forum. Digit Health. 2017;3:2055207617704274.
  10. Health 2.0. The Economist. 2007;384:14.
  11. Fox S. Peer-to-peer health care. Pew Research Center. February 28, 2011. Accessed December 14, 2021. https://www.pewinternet.org/wp-content/uploads/sites/9/media/Files/Reports/2011/Pew_P2PHealthcare_2011.pdf
  12. Li N, Orrange S, Kravitz RL, et al. Reasons for and predictors of patients’ online health information seeking following a medical appointment. Fam Pract. 2014;31:550-556.
  13. Idriss SZ, Kvedar JC, Watson AJ. The role of online support communities: benefits of expanded social networks to patients with psoriasis. Arch Dermatol. 2009;145:46-51.
  14. Teasdale EJ, Muller I, Santer M. Carers’ views of topical corticosteroid use in childhood eczema: a qualitative study of online discussion forums. Br J Dermatol 2017;176:1500-1507.
  15. Santer M, Chandler D, Lown M, et al. Views of oral antibiotics and advice seeking about acne: a qualitative study of online discussion forums. Br J Dermatol. 2017;177:751-757.
  16. Santer M, Burgess H, Yardley L, et al. Experiences of carers managing childhood eczema and their views on its treatment: a qualitative study. Br J Gen Pract. 2012;62:e261-e267.
  17. Talsania N, Lamb B, Bewley A. Vitiligo is more than skin deep: a survey of members of the Vitiligo Society. Clin Exp Dermatol. 2010;35:736-739.
  18. Guba EG, Lincoln YS. Competing paradigms in qualitative research. In: Denzin NK, Lincoln YS, eds. Handbook of Qualitative Research. Sage Publications, Inc; 1994:105-117.
  19. Lincoln YS. Emerging criteria for quality in qualitative and interpretive research. Qualitative Inquiry. 2016;1:275-289.
  20. O’Brien BC, Harris IB, Beckman TJ, et al. Standards for reporting qualitative research: a synthesis of recommendations. Acad Med. 2014;89:1245-1251.
  21. Teasdale EJ, Muller I, Santer M. Carers’ views of topical corticosteroid use in childhood eczema: a qualitative study of online discussion forums. Br J Dermatol. 2017;176:1500-1507.
  22. Teasdale E, Muller I, Sani AA, et al. Views and experiences of seeking information and help for vitiligo: a qualitative study of written accounts. BMJ Open. 2018;8:e018652.
  23. Bradley EH, Curry LA, Devers KJ. Qualitative data analysis for health services research: developing taxonomy, themes, and theory. Health Serv Res. 2007;42:1758-1772.
  24. Hewson C, Buchanan T, Brown I, et al. Ethics Guidelines for Internet-mediated Research. The British Psychological Society; 2017.
  25. Coulson NS. Sharing, supporting and sobriety: a qualitative analysis of messages posted to alcohol-related online discussion forums in the United Kingdom. J Subst Use. 2014;19:176-180.
  26. Attard A, Coulson NS. A thematic analysis of patient communication in Parkinson’s disease online support group discussion forums. Comput Hum Behav. 2012;28:500-506.
  27. Nelson PA, Chew-Graham CA, Griffiths CE, et al. Recognition of need in health care consultations: a qualitative study of people with psoriasis. Br J Dermatol. 2013;168:354-361.
  28. Gore C, Johnson RJ, Caress AL, et al. The information needs and preferred roles in treatment decision-making of parents caring for infants with atopic dermatitis: a qualitative study. Allergy. 2005;60:938-943.
  29. Eleftheriadou V, Thomas KS, Whitton ME, et al. Which outcomes should we measure in vitiligo? Results of a systematic review and a survey among patients and clinicians on outcomes in vitiligo trials. Br J Dermatol. 2012;167:804-814.
  30. Tan SS, Goonawardene N. Internet health information seeking and the patient-physician relationship: a systematic review. J Med Internet Res. 2017;19:e9.
  31. Sillence E, Briggs P, Harris PR, et al. How do patients evaluate and make use of online health information? Soc Sci Med. 2007;64:1853-1862.
  32. Hay MC, Cadigan RJ, Khanna D, et al. Prepared patients: internet information seeking by new rheumatology patients. Arthritis Rheum. 2008;59:575-582.
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Author and Disclosure Information

From the Center for Dermatology Research, Department of Dermatology, Wake Forest School of Medicine, Winston-Salem, North Carolina. Dr. Feldman also is from the Wake Forest School of Medicine Department of Pathology and Department of Social Sciences & Health Policy, and the Department of Dermatology, University of Southern Denmark, Odense.

Drs. Gadarowski and Bashyam report no conflict of interest. Dr. McMichael has received consulting, research, royalties, and/or speaking support from Allergan; Almirall; Arcutis; Bioniz Therapeutics; Cassiopea; Concert Pharmaceuticals; Covance; Eli Lilly and Company; eResearchTechnology, Inc; Galderma; Incyte Corp; Informa Healthcare; Johnson & Johnson; KeraNetics Inc; Merck & Co; Pfizer; Procter & Gamble; Revian; Samumed; and UpToDate. Dr. Feldman has received consulting, research, and/or speaking support from the following companies: AbbVie; Advance Medical; Alvotech; Amgen; Caremark; Celgene; Eli Lilly and Company; Informa; Galderma; Gerson Lehrman Group; Guidepoint Global; Janssen Pharmaceuticals; Kikaku; LEO Pharma; Medical Quality Enhancement Corporation; Merck & Co; Mylan; Novartis; Ortho Dermatology; Pfizer; Regeneron Pharmaceuticals; Sanofi; Sienna; Sun Pharmaceutical Industries Ltd; Suncare Research Laboratories; Taro; UpToDate; Xenoport; and Xlibris. He is founder and majority owner of www.DrScore.com, and he is founder, stockholder, and Chief Technology Officer of Causa Research, a company dedicated to enhancing patients’ adherence to treatment.

The eTables are available in the Appendix online at www.mdedge.com/dermatology.

Correspondence: Mary Beth Gadarowski, MD, Department of Dermatology, Wake Forest School of Medicine, Medical Center Blvd, Winston-Salem, NC 27157-1071 (mbgadarowski@gmail.com).

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From the Center for Dermatology Research, Department of Dermatology, Wake Forest School of Medicine, Winston-Salem, North Carolina. Dr. Feldman also is from the Wake Forest School of Medicine Department of Pathology and Department of Social Sciences & Health Policy, and the Department of Dermatology, University of Southern Denmark, Odense.

Drs. Gadarowski and Bashyam report no conflict of interest. Dr. McMichael has received consulting, research, royalties, and/or speaking support from Allergan; Almirall; Arcutis; Bioniz Therapeutics; Cassiopea; Concert Pharmaceuticals; Covance; Eli Lilly and Company; eResearchTechnology, Inc; Galderma; Incyte Corp; Informa Healthcare; Johnson & Johnson; KeraNetics Inc; Merck & Co; Pfizer; Procter & Gamble; Revian; Samumed; and UpToDate. Dr. Feldman has received consulting, research, and/or speaking support from the following companies: AbbVie; Advance Medical; Alvotech; Amgen; Caremark; Celgene; Eli Lilly and Company; Informa; Galderma; Gerson Lehrman Group; Guidepoint Global; Janssen Pharmaceuticals; Kikaku; LEO Pharma; Medical Quality Enhancement Corporation; Merck & Co; Mylan; Novartis; Ortho Dermatology; Pfizer; Regeneron Pharmaceuticals; Sanofi; Sienna; Sun Pharmaceutical Industries Ltd; Suncare Research Laboratories; Taro; UpToDate; Xenoport; and Xlibris. He is founder and majority owner of www.DrScore.com, and he is founder, stockholder, and Chief Technology Officer of Causa Research, a company dedicated to enhancing patients’ adherence to treatment.

The eTables are available in the Appendix online at www.mdedge.com/dermatology.

Correspondence: Mary Beth Gadarowski, MD, Department of Dermatology, Wake Forest School of Medicine, Medical Center Blvd, Winston-Salem, NC 27157-1071 (mbgadarowski@gmail.com).

Author and Disclosure Information

From the Center for Dermatology Research, Department of Dermatology, Wake Forest School of Medicine, Winston-Salem, North Carolina. Dr. Feldman also is from the Wake Forest School of Medicine Department of Pathology and Department of Social Sciences & Health Policy, and the Department of Dermatology, University of Southern Denmark, Odense.

Drs. Gadarowski and Bashyam report no conflict of interest. Dr. McMichael has received consulting, research, royalties, and/or speaking support from Allergan; Almirall; Arcutis; Bioniz Therapeutics; Cassiopea; Concert Pharmaceuticals; Covance; Eli Lilly and Company; eResearchTechnology, Inc; Galderma; Incyte Corp; Informa Healthcare; Johnson & Johnson; KeraNetics Inc; Merck & Co; Pfizer; Procter & Gamble; Revian; Samumed; and UpToDate. Dr. Feldman has received consulting, research, and/or speaking support from the following companies: AbbVie; Advance Medical; Alvotech; Amgen; Caremark; Celgene; Eli Lilly and Company; Informa; Galderma; Gerson Lehrman Group; Guidepoint Global; Janssen Pharmaceuticals; Kikaku; LEO Pharma; Medical Quality Enhancement Corporation; Merck & Co; Mylan; Novartis; Ortho Dermatology; Pfizer; Regeneron Pharmaceuticals; Sanofi; Sienna; Sun Pharmaceutical Industries Ltd; Suncare Research Laboratories; Taro; UpToDate; Xenoport; and Xlibris. He is founder and majority owner of www.DrScore.com, and he is founder, stockholder, and Chief Technology Officer of Causa Research, a company dedicated to enhancing patients’ adherence to treatment.

The eTables are available in the Appendix online at www.mdedge.com/dermatology.

Correspondence: Mary Beth Gadarowski, MD, Department of Dermatology, Wake Forest School of Medicine, Medical Center Blvd, Winston-Salem, NC 27157-1071 (mbgadarowski@gmail.com).

Article PDF
Article PDF

Vitiligo is a chronic dermatologic condition that negatively affects quality of life (QOL), with substantial burden on the psychosocial well-being of patients.1 There is no cure, and current treatment modalities are aimed at controlling the chronic relapsing condition.1-3 Despite topical and cosmetic treatments for stabilization and repigmentation, vitiligo remains unpredictable.3

All genders, races, ethnicities, and socioeconomic classes are equally affected.4 The underlying etiology of vitiligo remains unknown to a great extent and is more poorly understood by the general public compared with other skin diseases (eg, acne).5 Patients with vitiligo experience social withdrawal, decreased sense of self-esteem, anxiety, depression, and suicidal ideation.5,6 Stigmatization has the greatest impact on QOL, with strong correlations between avoidance behaviors and lesion concealment.6-8 Although the condition is especially disfiguring for darker skin types, lighter skin types also are substantially affected, with similar overall self-reported stress.6,7

Individuals with chronic illnesses such as vitiligo turn to online communities for health information and social support, commiserating with others who have the same condition.9,10 Online forums are platforms for asynchronous peer-to-peer exchange of disease-related information for better management of long-term disease.11 Moreover, of all available internet resources, online forum posts are the most commonly accessed source of information (91%) for patients following visits with their doctors.12

Qualitative research involving chronic skin conditions and the information exchanged in online forums has been conducted for patients with acne, psoriasis, and atopic dermatitis, but not for patients with vitiligo.13-16 Although online questionnaires have been administered to patients with vitiligo, the content within online forums is not well characterized.2,17

The purpose of this qualitative study was to evaluate the online content exchanged by individuals with vitiligo to better understand the general attitudes and help-seeking behaviors in online forums.

Methods

Study Design—This qualitative study sought to investigate health beliefs and messages about vitiligo posted by users in US-based online discussion forums. An interpretive research paradigm was utilized so that all content collected in online forums were the views expressed by individuals.18-20 An integrated approach was used in the development of the coding manual, with pre-established major themes and subthemes as a guiding framework.16,21,22 We adhered to an inductive grounded method by means of de novo line-by-line coding, such that we had flexibility for new subthemes to emerge throughout the duration of the entire coding process.23

Individual posts and subsequent replies embedded within public online forums were used as the collected data source. Google was utilized as the primary search engine to identify forums pertaining to vitiligo, as 80% of US adults with chronic disease report that their inquiries for health information start with Google, Bing, or Yahoo.24 The institutional review board at the Wake Forest School of Medicine (Winston-Salem, North Carolina) granted approval of the study (IRB00063073). Online forums were considered “property” of the public domain and were accessible to all, eliminating the need for written informed consent.24-26

 

 

Search Criteria—We conducted our forum search in February 2020 with a systematic approach using predetermined phrases—online forum vitiligo support, vitiligo online message board, and vitiligo forums—which yielded more than 358,171 total results (eTable 1). Threads were identified in chronological order (from newest to oldest) based on how they appeared during each internet search, and all Google results for the respective search phrases were reviewed. Dates of selected threads ranged from 2005 to 2020. Only sites with US domains were included. Posts that either included views and understandings of vitiligo or belonged to a thread that contained a vitiligo discussion were deemed relevant for inclusion. Forums were excluded if registration or means of payment was required to view posts, if there were fewer than 2 user replies to a thread, if threads contained patient photographs, or if no posts had been made in the last 2 years (rendering the thread inactive). No social media platforms, such as Facebook, or formal online platforms, such as MyVitiligoTeam, were included in the search. A no-fee-for-access was chosen for this study, as the majority of those with a chronic condition who encounter a required paywall find the information elsewhere.25

Search Strategy for Online Forums Related to Vitiligo

Data Analysis—A total of 39 online forums were deemed relevant to the topic of vitiligo; 9 of them met inclusion criteria (eTable 2). The messages within the forums were copied verbatim into a password-encrypted text document, and usernames in the threads were de-identified, ensuring user confidentiality.

Online Forums Meeting Inclusion Criteria

An inductive thematic analysis was utilized to explore the views and beliefs of online forum users discussing vitiligo. One author (M.B.G.) read the extracted message threads, developed an initial codebook, and established a finalized version with the agreement of another author (A.M.B.)(eTable 3). The forums were independently coded (M.B.G. and A.M.B.) in a line-by-line manner according to the codebook. Discrepancies were documented and resolved. Data saturation was adequately achieved, such that no new themes emerged during the iterative coding process. NVivo was used for qualitative analysis.

Code Structure: Understanding the Beliefs and Content of Information Exchanged by Individuals in Online Forum Discussions on Vitiligo

Results

Nine forums met inclusion criteria, comprising 105 pages of text. There were 61 total discussion threads, with 382 anonymous contributing users. Most users initiated a thread by posting either a question, an advice statement, or a request for help. The psychosocial impact of the disease permeated multiple domains,including personal relationships and daily life. Several threads discussed treatment, including effective camouflage and makeup, as well as peer validation of physician-prescribed treatments, along with threads dedicated to “cures” or homeopathy regimens. In several instances, commercial product endorsement, testimonials, and marketing links were reposted by the same user multiple times.

Inductive thematic analysis highlighted diverse themes and subthemes related to the beliefs and perspectives of users with vitiligo or with relatives or friends with vitiligo: psychosocial impact, disease management and camouflage/concealment, alternative medicine/homeopathy/cures, interactions with the public and health care providers, and skin tone and race. Quotes from individuals were included to demonstrate themes and subthemes.

Psychosocial Impact: QOL, Sources of Support, and Coping—There was a broad range of comments on how patients cope with and view their vitiligo. Some individuals felt vitiligo made them special, and others were at peace with and accepted their condition. In contrast, others reported the disease had devastated them and interfered with relationships. Individuals shared their stories of grief and hardships through childhood and adulthood and their concerns, especially on affected visible areas or the potential for disease progression. Users were vocal about how vitiligo affected their daily routines and lives, sharing how they felt uncomfortable outside the home, no longer engaged in swimming or exposing their legs, and preferred to stay inside instead. Some users adopted a “tough love” approach to coping, sharing how they have learned to either embrace their vitiligo or “live with it.” Some examples include:

“My best advice is go with the flow, vitiligo is not the worst thing that can happen.”

 

 

“I hate my life with vitiligo yet really I feel so selfish that there is much worse suffering in the world than a few white patches.”

Other advice was very practical:

“I hope it isn’t vanity that is tearing you apart because that is only skin deep. Make a fashion statement with hats.”

Some users acknowledged and adopted the mantra that vitiligo is not a somatic condition or “physical ailment,” while others emphasized its pervasive psychological burden:

“I still deal with this psychologically . . . You must keep a positive attitude and frame of mind . . . Vitiligo will not kill you, but you do need to stay strong and keep your head up emotionally.”

“I am just really thankful that I have a disease that will not kill me or that has [not] affected me physically at all. I consider myself lucky.”

Disease Management: Treatment, Vitiligo Course, Advice-Seeking, Camouflage—The range of information discussed for treatment was highly variable. There were many accounts in which users advised others to seek professional help, namely that of a dermatologist, for a formal assessment. Many expressed frustrations with treatments and their ineffectiveness, to which the majority of users said to consult with a professional and to remain patient and hopeful/optimistic:

“The best thing to do would be to take an appointment with a dermatologist and have the discoloration checked out. That’s the only way to know whether it is vitiligo or not.”

“My way of dealing with it is to gain control by camouflage.”

“The calming effect of being in control of my vitiligo, whether with concealers, self-tan or anything else, has stopped my feelings of despair.”

 

 

Beliefs on Alternative Medicine: Homeopathy and Alternative Regimens—Although some threads started with a post asking for the best treatments, others initiated a discussion by posting “best herbal treatments for cure” or “how to cure my vitiligo,” emphasizing the beliefs and wishes for a cure for vitiligo. Alternative therapies that users endorsed included apple cider vinegar, toothpaste, vitamins, and Ayurvedic treatment, among others. Dietary plans were popular, with users claiming success with dietary alterations in stopping and preventing lesion progression. For example, individuals felt that avoidance of sugar, meat, dairy, and citrus fruits or drinks and consumption of only filtered water were crucial to preventing further lesion spread and resulted in their “cure”:

“Don’t eat chocolate, wine (made of grapes), coffee, or tea if you don’t want to have vitiligo or let it get worse. Take Vitamin B, biotin, and nuts for Vitamin E.”

Other dangerous messages pitted treatments by health professionals against beliefs in homeopathy:

“I feel that vitiligo treatment is all in your diet and vitamins. All that medicine and UV lights is a no-no . . .w ith every medicine there is a side effect. The doctors could be healing your vitiligo and severely damaging you inside and out, and you won’t know until years later.”

There was a minor presence of users advising against homeopathy and the associated misinformation and inaccurate claims on curing vitiligo, though this group was small in comparison to the number of users posting outlandish claims on cure:

“There is no cure . . . It’s where your immune system attacks your skin cells causing loss of pigmentation. The skin that has lost the pigmentation can’t be reversed.”

Interactions With the Public and Health Care Providers—Those with vitiligo encounter unique situations in public and in their daily lives. Many of the accounts shared anecdotal stories on how patients have handled the stigma and discrimination faced:

“I have had to face discrimination at school, public places, college, functions, and every new person I have met has asked me this: ‘how did this happen?’”

Those with vitiligo even stated how they wished others would deal with their condition out in public, hoping that others would directly ask what the lesions were instead of the more hurtful staring. There were many stories in which users said others feel vitiligo was contagious or “dirty” and stressed that the condition is not infectious:

“I refer to myself as ‘camo-man’ and reassure people I come into contact with that it is not contagious.”

“Once I was eating at a restaurant . . . and a little girl said to her mom, ‘Look, Mom, that lady doesn’t wash her arms, look how dirty they are.’ That just broke my heart.”

 

 

Skin Tone and Implications—The belief that vitiligo lesions are less dramatic or less anxiety provoking for individuals with lighter skin was noted by users themselves and by health care providers in certain cases. Skin tone and its impact on QOL was confusing and contentious. Some users with fair skin stated their vitiligo was “less of an annoyance” or “less obvious” compared with individuals with darker complexions. Conversely, other accounts of self-reported White users vehemently stressed the anxieties felt by depigmented lesions, despite being “already white at baseline.”

“Was told by my dermatologist (upon diagnosis) that ‘You’re lucky you’re not African American—it shows up on them much worse. You’re so fair, it doesn’t really matter.’

“You didn’t say what race you are. I could imagine it has a bigger impact if you are anything other than White.”

Comment

Patients Looking for Cures—The general attitude within the forums was uplifting and encouraging, with users detailing how they respond to others in public and sharing their personal perspectives. We found a mix of information regarding disease management and treatment of vitiligo. Overall, there was uncertainty about treatments, with individuals expressing concern that their treatments were ineffective or had failed or that better alternatives would be more suitable for their condition. We found many anecdotal endorsements of homeopathic remedies for vitiligo, with users boasting that their disease had not only been cured but had never returned. Some users completely denounced these statements, while other threads seemed to revolve completely around “cure” discussions with no dissenting voices. The number of discussions related to homeopathy was concerning. Furthermore, there often were no moderators within threads to remove cure-related content, whether commercially endorsed or anecdotal. It is plausible that supplements and vitamins recommended by some physicians may be incorrectly interpreted as a “cure” in online discussions. Our findings are consistent with prior reports that forums are a platform to express dissatisfaction with treatment and the need for additional treatment options.15,22

Concern Expressed by Health Care Providers—Prior qualitative research has described how patients with chronic dermatologic conditions believe that health care providers minimize patients’ psychological distress.27,28 We found several accounts in which an individual had explicitly stated their provider had “belittled” the extent and impact of vitiligo when comparing skin phototypes. This suggests either that physicians underestimate the impact of vitiligo on their patients or that physicians are not expressing enough empathic concern about the impact the condition has on those affected.

Cosmetic Aspects of Vitiligo—Few clinical trials have investigated QOL and cosmetic acceptability of treatments as outcome measures.29 We found several instances in which users with vitiligo had reported being dismissed as having a “cosmetic disease,” consistent with other work demonstrating the negative impact on such dismissals.22 Moreover, concealment and camouflage techniques frequently were discussed, demonstrating the relevance of cosmetic management as an important research topic.

Trustworthy Sources of Health Information—Patients still view physicians as trustworthy and a key source of health care information and advice.30-32 Patients with vitiligo who have been directed to reliable information sources often express gratitude22 and want health professionals to remain an important source in their health information-seeking.31 Given the range in information discussed online, it may be valuable to invite patients to share what information they have encountered online.

 

 

Our study highlights the conflicting health information and advice shared by users in online forums, complicating an already psychologically burdensome condition. Guiding patients to credible, moderated sites and resources that are accurate, understandable, and easy to access may help dispel the conflicting messages and stories discussed in the online community.

Study Strengths and Limitations—Limitations included reporting bias and reliance on self-reported information on the diagnosis and extent of individuals’ vitiligo. Excluding social media websites and platforms from the data collection is a limitation to comprehensively assessing the topic of internet users with vitiligo. Many social media platforms direct patients and their family members to support groups and therefore may have excluded these particular individuals. Social media platforms were excluded from our research owing to the prerequisite of creating user accounts or registering as an online member. Our inclusion criteria were specific to forums that did not require registering or creating an account and were therefore freely accessible to all internet viewers. There is an inherent lack of context present in online forums, preventing data collection on individuals’ demographics and socioeconomic backgrounds. However, anonymity may have allowed individuals to express their thoughts more freely.

An integrated approach, along with our sampling method of online forums not requiring registration, allows for greater transferability and understanding of the health needs of the general public with vitiligo.

Conclusion

Individuals with vitiligo continue to seek peer psychosocial support for the physical and emotional management of their disease. Counseling those with vitiligo about cosmetic concealment options, homeopathy, and treatment scams remains paramount. Directing patients to evidence-based resources, along with providing structured sources of support, may help to improve the psychosocial burden and QOL experienced by patients with vitiligo. Connecting patients with local and national support groups moderated by physicians, such as the Global Vitiligo Foundation (https://globalvitiligofoundation.org/), may provide benefit to patients with vitiligo.

Vitiligo is a chronic dermatologic condition that negatively affects quality of life (QOL), with substantial burden on the psychosocial well-being of patients.1 There is no cure, and current treatment modalities are aimed at controlling the chronic relapsing condition.1-3 Despite topical and cosmetic treatments for stabilization and repigmentation, vitiligo remains unpredictable.3

All genders, races, ethnicities, and socioeconomic classes are equally affected.4 The underlying etiology of vitiligo remains unknown to a great extent and is more poorly understood by the general public compared with other skin diseases (eg, acne).5 Patients with vitiligo experience social withdrawal, decreased sense of self-esteem, anxiety, depression, and suicidal ideation.5,6 Stigmatization has the greatest impact on QOL, with strong correlations between avoidance behaviors and lesion concealment.6-8 Although the condition is especially disfiguring for darker skin types, lighter skin types also are substantially affected, with similar overall self-reported stress.6,7

Individuals with chronic illnesses such as vitiligo turn to online communities for health information and social support, commiserating with others who have the same condition.9,10 Online forums are platforms for asynchronous peer-to-peer exchange of disease-related information for better management of long-term disease.11 Moreover, of all available internet resources, online forum posts are the most commonly accessed source of information (91%) for patients following visits with their doctors.12

Qualitative research involving chronic skin conditions and the information exchanged in online forums has been conducted for patients with acne, psoriasis, and atopic dermatitis, but not for patients with vitiligo.13-16 Although online questionnaires have been administered to patients with vitiligo, the content within online forums is not well characterized.2,17

The purpose of this qualitative study was to evaluate the online content exchanged by individuals with vitiligo to better understand the general attitudes and help-seeking behaviors in online forums.

Methods

Study Design—This qualitative study sought to investigate health beliefs and messages about vitiligo posted by users in US-based online discussion forums. An interpretive research paradigm was utilized so that all content collected in online forums were the views expressed by individuals.18-20 An integrated approach was used in the development of the coding manual, with pre-established major themes and subthemes as a guiding framework.16,21,22 We adhered to an inductive grounded method by means of de novo line-by-line coding, such that we had flexibility for new subthemes to emerge throughout the duration of the entire coding process.23

Individual posts and subsequent replies embedded within public online forums were used as the collected data source. Google was utilized as the primary search engine to identify forums pertaining to vitiligo, as 80% of US adults with chronic disease report that their inquiries for health information start with Google, Bing, or Yahoo.24 The institutional review board at the Wake Forest School of Medicine (Winston-Salem, North Carolina) granted approval of the study (IRB00063073). Online forums were considered “property” of the public domain and were accessible to all, eliminating the need for written informed consent.24-26

 

 

Search Criteria—We conducted our forum search in February 2020 with a systematic approach using predetermined phrases—online forum vitiligo support, vitiligo online message board, and vitiligo forums—which yielded more than 358,171 total results (eTable 1). Threads were identified in chronological order (from newest to oldest) based on how they appeared during each internet search, and all Google results for the respective search phrases were reviewed. Dates of selected threads ranged from 2005 to 2020. Only sites with US domains were included. Posts that either included views and understandings of vitiligo or belonged to a thread that contained a vitiligo discussion were deemed relevant for inclusion. Forums were excluded if registration or means of payment was required to view posts, if there were fewer than 2 user replies to a thread, if threads contained patient photographs, or if no posts had been made in the last 2 years (rendering the thread inactive). No social media platforms, such as Facebook, or formal online platforms, such as MyVitiligoTeam, were included in the search. A no-fee-for-access was chosen for this study, as the majority of those with a chronic condition who encounter a required paywall find the information elsewhere.25

Search Strategy for Online Forums Related to Vitiligo

Data Analysis—A total of 39 online forums were deemed relevant to the topic of vitiligo; 9 of them met inclusion criteria (eTable 2). The messages within the forums were copied verbatim into a password-encrypted text document, and usernames in the threads were de-identified, ensuring user confidentiality.

Online Forums Meeting Inclusion Criteria

An inductive thematic analysis was utilized to explore the views and beliefs of online forum users discussing vitiligo. One author (M.B.G.) read the extracted message threads, developed an initial codebook, and established a finalized version with the agreement of another author (A.M.B.)(eTable 3). The forums were independently coded (M.B.G. and A.M.B.) in a line-by-line manner according to the codebook. Discrepancies were documented and resolved. Data saturation was adequately achieved, such that no new themes emerged during the iterative coding process. NVivo was used for qualitative analysis.

Code Structure: Understanding the Beliefs and Content of Information Exchanged by Individuals in Online Forum Discussions on Vitiligo

Results

Nine forums met inclusion criteria, comprising 105 pages of text. There were 61 total discussion threads, with 382 anonymous contributing users. Most users initiated a thread by posting either a question, an advice statement, or a request for help. The psychosocial impact of the disease permeated multiple domains,including personal relationships and daily life. Several threads discussed treatment, including effective camouflage and makeup, as well as peer validation of physician-prescribed treatments, along with threads dedicated to “cures” or homeopathy regimens. In several instances, commercial product endorsement, testimonials, and marketing links were reposted by the same user multiple times.

Inductive thematic analysis highlighted diverse themes and subthemes related to the beliefs and perspectives of users with vitiligo or with relatives or friends with vitiligo: psychosocial impact, disease management and camouflage/concealment, alternative medicine/homeopathy/cures, interactions with the public and health care providers, and skin tone and race. Quotes from individuals were included to demonstrate themes and subthemes.

Psychosocial Impact: QOL, Sources of Support, and Coping—There was a broad range of comments on how patients cope with and view their vitiligo. Some individuals felt vitiligo made them special, and others were at peace with and accepted their condition. In contrast, others reported the disease had devastated them and interfered with relationships. Individuals shared their stories of grief and hardships through childhood and adulthood and their concerns, especially on affected visible areas or the potential for disease progression. Users were vocal about how vitiligo affected their daily routines and lives, sharing how they felt uncomfortable outside the home, no longer engaged in swimming or exposing their legs, and preferred to stay inside instead. Some users adopted a “tough love” approach to coping, sharing how they have learned to either embrace their vitiligo or “live with it.” Some examples include:

“My best advice is go with the flow, vitiligo is not the worst thing that can happen.”

 

 

“I hate my life with vitiligo yet really I feel so selfish that there is much worse suffering in the world than a few white patches.”

Other advice was very practical:

“I hope it isn’t vanity that is tearing you apart because that is only skin deep. Make a fashion statement with hats.”

Some users acknowledged and adopted the mantra that vitiligo is not a somatic condition or “physical ailment,” while others emphasized its pervasive psychological burden:

“I still deal with this psychologically . . . You must keep a positive attitude and frame of mind . . . Vitiligo will not kill you, but you do need to stay strong and keep your head up emotionally.”

“I am just really thankful that I have a disease that will not kill me or that has [not] affected me physically at all. I consider myself lucky.”

Disease Management: Treatment, Vitiligo Course, Advice-Seeking, Camouflage—The range of information discussed for treatment was highly variable. There were many accounts in which users advised others to seek professional help, namely that of a dermatologist, for a formal assessment. Many expressed frustrations with treatments and their ineffectiveness, to which the majority of users said to consult with a professional and to remain patient and hopeful/optimistic:

“The best thing to do would be to take an appointment with a dermatologist and have the discoloration checked out. That’s the only way to know whether it is vitiligo or not.”

“My way of dealing with it is to gain control by camouflage.”

“The calming effect of being in control of my vitiligo, whether with concealers, self-tan or anything else, has stopped my feelings of despair.”

 

 

Beliefs on Alternative Medicine: Homeopathy and Alternative Regimens—Although some threads started with a post asking for the best treatments, others initiated a discussion by posting “best herbal treatments for cure” or “how to cure my vitiligo,” emphasizing the beliefs and wishes for a cure for vitiligo. Alternative therapies that users endorsed included apple cider vinegar, toothpaste, vitamins, and Ayurvedic treatment, among others. Dietary plans were popular, with users claiming success with dietary alterations in stopping and preventing lesion progression. For example, individuals felt that avoidance of sugar, meat, dairy, and citrus fruits or drinks and consumption of only filtered water were crucial to preventing further lesion spread and resulted in their “cure”:

“Don’t eat chocolate, wine (made of grapes), coffee, or tea if you don’t want to have vitiligo or let it get worse. Take Vitamin B, biotin, and nuts for Vitamin E.”

Other dangerous messages pitted treatments by health professionals against beliefs in homeopathy:

“I feel that vitiligo treatment is all in your diet and vitamins. All that medicine and UV lights is a no-no . . .w ith every medicine there is a side effect. The doctors could be healing your vitiligo and severely damaging you inside and out, and you won’t know until years later.”

There was a minor presence of users advising against homeopathy and the associated misinformation and inaccurate claims on curing vitiligo, though this group was small in comparison to the number of users posting outlandish claims on cure:

“There is no cure . . . It’s where your immune system attacks your skin cells causing loss of pigmentation. The skin that has lost the pigmentation can’t be reversed.”

Interactions With the Public and Health Care Providers—Those with vitiligo encounter unique situations in public and in their daily lives. Many of the accounts shared anecdotal stories on how patients have handled the stigma and discrimination faced:

“I have had to face discrimination at school, public places, college, functions, and every new person I have met has asked me this: ‘how did this happen?’”

Those with vitiligo even stated how they wished others would deal with their condition out in public, hoping that others would directly ask what the lesions were instead of the more hurtful staring. There were many stories in which users said others feel vitiligo was contagious or “dirty” and stressed that the condition is not infectious:

“I refer to myself as ‘camo-man’ and reassure people I come into contact with that it is not contagious.”

“Once I was eating at a restaurant . . . and a little girl said to her mom, ‘Look, Mom, that lady doesn’t wash her arms, look how dirty they are.’ That just broke my heart.”

 

 

Skin Tone and Implications—The belief that vitiligo lesions are less dramatic or less anxiety provoking for individuals with lighter skin was noted by users themselves and by health care providers in certain cases. Skin tone and its impact on QOL was confusing and contentious. Some users with fair skin stated their vitiligo was “less of an annoyance” or “less obvious” compared with individuals with darker complexions. Conversely, other accounts of self-reported White users vehemently stressed the anxieties felt by depigmented lesions, despite being “already white at baseline.”

“Was told by my dermatologist (upon diagnosis) that ‘You’re lucky you’re not African American—it shows up on them much worse. You’re so fair, it doesn’t really matter.’

“You didn’t say what race you are. I could imagine it has a bigger impact if you are anything other than White.”

Comment

Patients Looking for Cures—The general attitude within the forums was uplifting and encouraging, with users detailing how they respond to others in public and sharing their personal perspectives. We found a mix of information regarding disease management and treatment of vitiligo. Overall, there was uncertainty about treatments, with individuals expressing concern that their treatments were ineffective or had failed or that better alternatives would be more suitable for their condition. We found many anecdotal endorsements of homeopathic remedies for vitiligo, with users boasting that their disease had not only been cured but had never returned. Some users completely denounced these statements, while other threads seemed to revolve completely around “cure” discussions with no dissenting voices. The number of discussions related to homeopathy was concerning. Furthermore, there often were no moderators within threads to remove cure-related content, whether commercially endorsed or anecdotal. It is plausible that supplements and vitamins recommended by some physicians may be incorrectly interpreted as a “cure” in online discussions. Our findings are consistent with prior reports that forums are a platform to express dissatisfaction with treatment and the need for additional treatment options.15,22

Concern Expressed by Health Care Providers—Prior qualitative research has described how patients with chronic dermatologic conditions believe that health care providers minimize patients’ psychological distress.27,28 We found several accounts in which an individual had explicitly stated their provider had “belittled” the extent and impact of vitiligo when comparing skin phototypes. This suggests either that physicians underestimate the impact of vitiligo on their patients or that physicians are not expressing enough empathic concern about the impact the condition has on those affected.

Cosmetic Aspects of Vitiligo—Few clinical trials have investigated QOL and cosmetic acceptability of treatments as outcome measures.29 We found several instances in which users with vitiligo had reported being dismissed as having a “cosmetic disease,” consistent with other work demonstrating the negative impact on such dismissals.22 Moreover, concealment and camouflage techniques frequently were discussed, demonstrating the relevance of cosmetic management as an important research topic.

Trustworthy Sources of Health Information—Patients still view physicians as trustworthy and a key source of health care information and advice.30-32 Patients with vitiligo who have been directed to reliable information sources often express gratitude22 and want health professionals to remain an important source in their health information-seeking.31 Given the range in information discussed online, it may be valuable to invite patients to share what information they have encountered online.

 

 

Our study highlights the conflicting health information and advice shared by users in online forums, complicating an already psychologically burdensome condition. Guiding patients to credible, moderated sites and resources that are accurate, understandable, and easy to access may help dispel the conflicting messages and stories discussed in the online community.

Study Strengths and Limitations—Limitations included reporting bias and reliance on self-reported information on the diagnosis and extent of individuals’ vitiligo. Excluding social media websites and platforms from the data collection is a limitation to comprehensively assessing the topic of internet users with vitiligo. Many social media platforms direct patients and their family members to support groups and therefore may have excluded these particular individuals. Social media platforms were excluded from our research owing to the prerequisite of creating user accounts or registering as an online member. Our inclusion criteria were specific to forums that did not require registering or creating an account and were therefore freely accessible to all internet viewers. There is an inherent lack of context present in online forums, preventing data collection on individuals’ demographics and socioeconomic backgrounds. However, anonymity may have allowed individuals to express their thoughts more freely.

An integrated approach, along with our sampling method of online forums not requiring registration, allows for greater transferability and understanding of the health needs of the general public with vitiligo.

Conclusion

Individuals with vitiligo continue to seek peer psychosocial support for the physical and emotional management of their disease. Counseling those with vitiligo about cosmetic concealment options, homeopathy, and treatment scams remains paramount. Directing patients to evidence-based resources, along with providing structured sources of support, may help to improve the psychosocial burden and QOL experienced by patients with vitiligo. Connecting patients with local and national support groups moderated by physicians, such as the Global Vitiligo Foundation (https://globalvitiligofoundation.org/), may provide benefit to patients with vitiligo.

References
  1. Yaghoobi R, Omidian M, Bagherani N. Vitiligo: a review of the published work. J Dermatol. 2011;38:419-431.
  2. Ezzedine K, Sheth V, Rodrigues M, et al. Vitiligo is not a cosmetic disease. J Am Acad Dermatol. 2015;73:883-885.
  3. Faria AR, Tarlé RG, Dellatorre G, et al. Vitiligo—part 2—classification, histopathology and treatment. An Bras Dermatol. 2014;89:784-790.
  4. Alkhateeb A, Fain PR, Thody A, et al. Epidemiology of vitiligo and associated autoimmune diseases in Caucasian probands and their families. Pigment Cell Res. 2003;16:208-214.
  5. Nguyen CM, Beroukhim K, Danesh MJ, et al. The psychosocial impact of acne, vitiligo, and psoriasis: a review. Clin Cosmet Investig Dermatol. 2016;9:383-392.
  6. Ezzedine K, Eleftheriadou V, Whitton M, et al. Vitiligo. Lancet. 2015;386:74-84.
  7. Grimes PE, Billips M. Childhood vitiligo: clinical spectrum and therapeutic approaches. In: Hann SK, Nordlund JJ, eds. Vitiligo: A Monograph on the Basic and Clinical Science. Blackwell Science; 2000.
  8. Sawant NS, Vanjari NA, Khopkar U. Gender differences in depression, coping, stigma, and quality of life in patients of vitiligo. Dermatol Res Pract. 2019;2019:6879412.
  9. Liu Y, Kornfield R, Shaw BR, et al. When support is needed: social support solicitation and provision in an online alcohol use disorder forum. Digit Health. 2017;3:2055207617704274.
  10. Health 2.0. The Economist. 2007;384:14.
  11. Fox S. Peer-to-peer health care. Pew Research Center. February 28, 2011. Accessed December 14, 2021. https://www.pewinternet.org/wp-content/uploads/sites/9/media/Files/Reports/2011/Pew_P2PHealthcare_2011.pdf
  12. Li N, Orrange S, Kravitz RL, et al. Reasons for and predictors of patients’ online health information seeking following a medical appointment. Fam Pract. 2014;31:550-556.
  13. Idriss SZ, Kvedar JC, Watson AJ. The role of online support communities: benefits of expanded social networks to patients with psoriasis. Arch Dermatol. 2009;145:46-51.
  14. Teasdale EJ, Muller I, Santer M. Carers’ views of topical corticosteroid use in childhood eczema: a qualitative study of online discussion forums. Br J Dermatol 2017;176:1500-1507.
  15. Santer M, Chandler D, Lown M, et al. Views of oral antibiotics and advice seeking about acne: a qualitative study of online discussion forums. Br J Dermatol. 2017;177:751-757.
  16. Santer M, Burgess H, Yardley L, et al. Experiences of carers managing childhood eczema and their views on its treatment: a qualitative study. Br J Gen Pract. 2012;62:e261-e267.
  17. Talsania N, Lamb B, Bewley A. Vitiligo is more than skin deep: a survey of members of the Vitiligo Society. Clin Exp Dermatol. 2010;35:736-739.
  18. Guba EG, Lincoln YS. Competing paradigms in qualitative research. In: Denzin NK, Lincoln YS, eds. Handbook of Qualitative Research. Sage Publications, Inc; 1994:105-117.
  19. Lincoln YS. Emerging criteria for quality in qualitative and interpretive research. Qualitative Inquiry. 2016;1:275-289.
  20. O’Brien BC, Harris IB, Beckman TJ, et al. Standards for reporting qualitative research: a synthesis of recommendations. Acad Med. 2014;89:1245-1251.
  21. Teasdale EJ, Muller I, Santer M. Carers’ views of topical corticosteroid use in childhood eczema: a qualitative study of online discussion forums. Br J Dermatol. 2017;176:1500-1507.
  22. Teasdale E, Muller I, Sani AA, et al. Views and experiences of seeking information and help for vitiligo: a qualitative study of written accounts. BMJ Open. 2018;8:e018652.
  23. Bradley EH, Curry LA, Devers KJ. Qualitative data analysis for health services research: developing taxonomy, themes, and theory. Health Serv Res. 2007;42:1758-1772.
  24. Hewson C, Buchanan T, Brown I, et al. Ethics Guidelines for Internet-mediated Research. The British Psychological Society; 2017.
  25. Coulson NS. Sharing, supporting and sobriety: a qualitative analysis of messages posted to alcohol-related online discussion forums in the United Kingdom. J Subst Use. 2014;19:176-180.
  26. Attard A, Coulson NS. A thematic analysis of patient communication in Parkinson’s disease online support group discussion forums. Comput Hum Behav. 2012;28:500-506.
  27. Nelson PA, Chew-Graham CA, Griffiths CE, et al. Recognition of need in health care consultations: a qualitative study of people with psoriasis. Br J Dermatol. 2013;168:354-361.
  28. Gore C, Johnson RJ, Caress AL, et al. The information needs and preferred roles in treatment decision-making of parents caring for infants with atopic dermatitis: a qualitative study. Allergy. 2005;60:938-943.
  29. Eleftheriadou V, Thomas KS, Whitton ME, et al. Which outcomes should we measure in vitiligo? Results of a systematic review and a survey among patients and clinicians on outcomes in vitiligo trials. Br J Dermatol. 2012;167:804-814.
  30. Tan SS, Goonawardene N. Internet health information seeking and the patient-physician relationship: a systematic review. J Med Internet Res. 2017;19:e9.
  31. Sillence E, Briggs P, Harris PR, et al. How do patients evaluate and make use of online health information? Soc Sci Med. 2007;64:1853-1862.
  32. Hay MC, Cadigan RJ, Khanna D, et al. Prepared patients: internet information seeking by new rheumatology patients. Arthritis Rheum. 2008;59:575-582.
References
  1. Yaghoobi R, Omidian M, Bagherani N. Vitiligo: a review of the published work. J Dermatol. 2011;38:419-431.
  2. Ezzedine K, Sheth V, Rodrigues M, et al. Vitiligo is not a cosmetic disease. J Am Acad Dermatol. 2015;73:883-885.
  3. Faria AR, Tarlé RG, Dellatorre G, et al. Vitiligo—part 2—classification, histopathology and treatment. An Bras Dermatol. 2014;89:784-790.
  4. Alkhateeb A, Fain PR, Thody A, et al. Epidemiology of vitiligo and associated autoimmune diseases in Caucasian probands and their families. Pigment Cell Res. 2003;16:208-214.
  5. Nguyen CM, Beroukhim K, Danesh MJ, et al. The psychosocial impact of acne, vitiligo, and psoriasis: a review. Clin Cosmet Investig Dermatol. 2016;9:383-392.
  6. Ezzedine K, Eleftheriadou V, Whitton M, et al. Vitiligo. Lancet. 2015;386:74-84.
  7. Grimes PE, Billips M. Childhood vitiligo: clinical spectrum and therapeutic approaches. In: Hann SK, Nordlund JJ, eds. Vitiligo: A Monograph on the Basic and Clinical Science. Blackwell Science; 2000.
  8. Sawant NS, Vanjari NA, Khopkar U. Gender differences in depression, coping, stigma, and quality of life in patients of vitiligo. Dermatol Res Pract. 2019;2019:6879412.
  9. Liu Y, Kornfield R, Shaw BR, et al. When support is needed: social support solicitation and provision in an online alcohol use disorder forum. Digit Health. 2017;3:2055207617704274.
  10. Health 2.0. The Economist. 2007;384:14.
  11. Fox S. Peer-to-peer health care. Pew Research Center. February 28, 2011. Accessed December 14, 2021. https://www.pewinternet.org/wp-content/uploads/sites/9/media/Files/Reports/2011/Pew_P2PHealthcare_2011.pdf
  12. Li N, Orrange S, Kravitz RL, et al. Reasons for and predictors of patients’ online health information seeking following a medical appointment. Fam Pract. 2014;31:550-556.
  13. Idriss SZ, Kvedar JC, Watson AJ. The role of online support communities: benefits of expanded social networks to patients with psoriasis. Arch Dermatol. 2009;145:46-51.
  14. Teasdale EJ, Muller I, Santer M. Carers’ views of topical corticosteroid use in childhood eczema: a qualitative study of online discussion forums. Br J Dermatol 2017;176:1500-1507.
  15. Santer M, Chandler D, Lown M, et al. Views of oral antibiotics and advice seeking about acne: a qualitative study of online discussion forums. Br J Dermatol. 2017;177:751-757.
  16. Santer M, Burgess H, Yardley L, et al. Experiences of carers managing childhood eczema and their views on its treatment: a qualitative study. Br J Gen Pract. 2012;62:e261-e267.
  17. Talsania N, Lamb B, Bewley A. Vitiligo is more than skin deep: a survey of members of the Vitiligo Society. Clin Exp Dermatol. 2010;35:736-739.
  18. Guba EG, Lincoln YS. Competing paradigms in qualitative research. In: Denzin NK, Lincoln YS, eds. Handbook of Qualitative Research. Sage Publications, Inc; 1994:105-117.
  19. Lincoln YS. Emerging criteria for quality in qualitative and interpretive research. Qualitative Inquiry. 2016;1:275-289.
  20. O’Brien BC, Harris IB, Beckman TJ, et al. Standards for reporting qualitative research: a synthesis of recommendations. Acad Med. 2014;89:1245-1251.
  21. Teasdale EJ, Muller I, Santer M. Carers’ views of topical corticosteroid use in childhood eczema: a qualitative study of online discussion forums. Br J Dermatol. 2017;176:1500-1507.
  22. Teasdale E, Muller I, Sani AA, et al. Views and experiences of seeking information and help for vitiligo: a qualitative study of written accounts. BMJ Open. 2018;8:e018652.
  23. Bradley EH, Curry LA, Devers KJ. Qualitative data analysis for health services research: developing taxonomy, themes, and theory. Health Serv Res. 2007;42:1758-1772.
  24. Hewson C, Buchanan T, Brown I, et al. Ethics Guidelines for Internet-mediated Research. The British Psychological Society; 2017.
  25. Coulson NS. Sharing, supporting and sobriety: a qualitative analysis of messages posted to alcohol-related online discussion forums in the United Kingdom. J Subst Use. 2014;19:176-180.
  26. Attard A, Coulson NS. A thematic analysis of patient communication in Parkinson’s disease online support group discussion forums. Comput Hum Behav. 2012;28:500-506.
  27. Nelson PA, Chew-Graham CA, Griffiths CE, et al. Recognition of need in health care consultations: a qualitative study of people with psoriasis. Br J Dermatol. 2013;168:354-361.
  28. Gore C, Johnson RJ, Caress AL, et al. The information needs and preferred roles in treatment decision-making of parents caring for infants with atopic dermatitis: a qualitative study. Allergy. 2005;60:938-943.
  29. Eleftheriadou V, Thomas KS, Whitton ME, et al. Which outcomes should we measure in vitiligo? Results of a systematic review and a survey among patients and clinicians on outcomes in vitiligo trials. Br J Dermatol. 2012;167:804-814.
  30. Tan SS, Goonawardene N. Internet health information seeking and the patient-physician relationship: a systematic review. J Med Internet Res. 2017;19:e9.
  31. Sillence E, Briggs P, Harris PR, et al. How do patients evaluate and make use of online health information? Soc Sci Med. 2007;64:1853-1862.
  32. Hay MC, Cadigan RJ, Khanna D, et al. Prepared patients: internet information seeking by new rheumatology patients. Arthritis Rheum. 2008;59:575-582.
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Practice Points

  • Online forums provide invaluable insight on vitiligo disease management, psychosocial impact, and burden on quality of life. Patient care can be improved by inquiring where patients seek information and whether online forums are utilized.
  • Commonly discussed topics in online forums were cosmetic concealment of vitiligo lesions and homeopathy or “cure” discussions. Health care providers can engage in honest conversations about evidence-based medical treatments for vitiligo. The interest in cosmetic management highlights a relevant research area in this field.
  • Health care providers can better serve patients with vitiligo by providing online resources that are reputable and can help guide patients to credible internet sources such as the Global Vitiligo Foundation.
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Telemedicine Alopecia Assessment: Highlighting Patients With Skin of Color

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Telemedicine Alopecia Assessment: Highlighting Patients With Skin of Color

Practice Gap

In accordance with World Health Organization guidelines on social distancing to limit transmission of SARS-CoV-2, dermatologists have relied on teledermatology (TD) to develop novel adaptations of traditional workflows, optimize patient care, and limit in-person appointments during the COVID-19 pandemic. Pandemic-induced physical and emotional stress were anticipated to increase the incidence of dermatologic diseases with psychologic triggers. 

The connection between hair loss and emotional stress is well documented for telogen effluvium and alopecia areata.1,2 As anticipated, dermatology visits increased during the COVID-19 pandemic for the diagnosis of alopecia1-4; a survey performed during the pandemic found that alopecia was one of the most common diagnoses dermatologists made through telehealth platforms.5

This article provides a practical guide for dermatology practitioners to efficiently and accurately assess alopecia by TD in all patients, with added considerations for skin of color patients.

Diagnostic Tools

The intersection of TD, as an effective mechanism for the diagnosis and treatment of dermatologic disorders, and the increase in alopecia observed during the COVID-19 pandemic prompted us to develop a workflow for conducting virtual scalp examinations. Seven dermatologists (A.M., A.A., O.A., N.E., V.C., C.M.B., S.C.T.) who are experts in hair disorders contributed to developing workflows to optimize the assessment of alopecia through a virtual scalp examination, with an emphasis on patients of color. These experts completed a 7-question survey (Table) detailing their approach to the virtual scalp examination. One author (B.N.W.) served as an independent reviewer and collated responses into the following workflows.

Survey Questions on Telemedicine Scalp Examination

Telemedicine Previsit Workflow

Components of the previsit workflow include:

• Instruct patients to provide all laboratory values and biopsy reports before the appointment.

• Test for a stable Wi-Fi connection using a speed test (available at https://www.speedtest.net/). A speed of 10 megabits/second or more is required for high-quality video via TD.6

Vertex scalp
FIGURE 1. Patient photograph of the vertex scalp prior to a teledermatology appointment. Instruct the patient to put their chin down. Taking the photograph with the hair parted from the nape of the neck to the mid frontal point of the hairline is particularly valuable for surveying hair density and diagnosing certain scalp disorders.

• Provide a handout illustrating the required photographs of the anterior hairline; the mid scalp, including vertex, bilateral parietal, and occipital scalp; and posterior hairline. Photographs should be uploaded 2 hours before the visit. Figures 1 and 2 are examples of photographs that should be requested.

Right and left temporal areas
FIGURE 2. Patient full-view photograph of the face, including eyebrows and eyelashes, prior to a teledermatology appointment. Other helpful images include the right and left temporal areas and the occipital area, if relevant (not shown).
 

 

• Request images with 2 or 3 different angles of the area of the scalp with the greatest involvement to help appreciate primary and secondary characteristics.

• Encourage patients to present with clean, recently shampooed, dried, and detangled natural hair, unless they have an itchy or flaky scalp.

• For concerns of scalp, hairline, eyebrow, or facial flaking and scaling, instruct the patient to avoid applying a moisturizer before the visit.

• Instruct the patient to remove false eyelashes, eyelash extensions, eyebrow pencil, hair camouflage, hair accessories, braids, extensions, weaves, twists, and other hairstyles so that the hair can be maneuvered to expose the scalp surface.

• Instruct the patient to have a comb, pic, or brush, or more than one of these implements, available during the visit.

Telemedicine Visit Workflow

Components of the visit workflow include:

• If a stable Wi-Fi connection cannot be established, switch to an audio-only visit to collect a pertinent history. Advise the patient that in-person follow-up must be scheduled.

• Confirm that (1) the patient is in a private setting where the scalp can be viewed and (2) lighting is positioned in front of the patient.

 

 

• Ensure that the patient’s hairline, full face, eyebrows, and eyelashes and, upon request, the vertex and posterior scalp, are completely visible.

• Initiate the virtual scalp examination by instructing the patient how to perform a hair pull test. Then, examine the pattern and distribution of hair loss alongside supplemental photographs.

• Instruct the patient to apply pressure with the fingertips throughout the scalp to help localize tenderness, which, in combination with the pattern of hair loss observed, might inform the diagnosis.

• Instruct the patient to scan the scalp with the fingertips for “bumps” to locate papules, pustules, and keloidal scars.

Diagnostic Pearls

Distribution of Alopecia—The experts noted that the pattern, distribution, and location of hair loss determined from the telemedicine alopecia assessment provided important clues to distinguish the type of alopecia.

Diagnostic clues for diffuse or generalized alopecia include:

• Either of these findings might be indicative of telogen effluvium or acquired trichorrhexis nodosa. Results of the hair pull test can help distinguish between these diagnoses.

• Recent stressful life events along with the presence of telogen hairs extracted during a hair pull test support the diagnosis of telogen effluvium.

 

 

• A history of external stress on the hair—thermal, traction, or chemical—along with broken hair shafts following the hair pull test support the diagnosis of acquired trichorrhexis nodosa.

Diagnostic clues for focal or patchy alopecia include:

• Alopecia areata generally presents as focal hair loss in an annular distribution; pruritus, erythema, and scale are absent.

• Seborrheic dermatitis can present as pruritic erythematous patches with scale distributed on the scalp and, in some cases, in the eyebrows, nasolabial folds, or paranasal skin.7 Some skin of color patients present with petaloid seborrheic dermatitis—pink or hypopigmented polycyclic coalescing rings with minimal scale.7,8

• Discoid lupus erythematosus, similar to seborrheic dermatitis, might present as pruritic, scaly, hypopigmented patches. However, in the experience of the experts, a more common presentation is tender erythematous patches of hair loss with central hypopigmentation and surrounding hyperpigmentation.

Diagnostic clues for vertex and mid scalp alopecia include:

• Androgenetic alopecia typically presents as a reduction of terminal hair density in the vertex and mid scalp regions (with widening through the midline part) and fine hair along the anterior hairline.9 Signs of concomitant hyperandrogenism, including facial hirsutism, acne, and obesity, might be observed.10

• Central centrifugal cicatricial alopecia typically affects the vertex and mid scalp with a shiny scalp appearance and follicular dropout.

Diagnostic clues for frontotemporal alopecia include:

• Frontal fibrosing alopecia (FFA) often presents with spared single terminal hairs (lonely hair sign).

 

 

• Traction alopecia commonly presents with the fringe hair sign.

Scalp Symptoms—The experts noted that the presence of symptoms (eg, pain, tenderness, pruritus) in conjunction with the pattern of hair loss might support the diagnosis of an inflammatory scarring alopecia.

When do symptoms raise suspicion of central centrifugal cicatricial alopecia?

• Suspected in the setting of vertex alopecia associated with tenderness, pain, or itching.

When do symptoms raise suspicion of FFA?

• Suspected when patients experience frontotemporal tenderness, pain, or burning associated with alopecia.

• The skin hue of the affected area might be lighter in color than, and contrast with, the darker hue of the photoaged upper forehead.11

 

 

• The lonely hair sign can aid in diagnosing FFA and distinguish it from the fringe sign of traction alopecia.

• Concurrent madarosis, flesh-colored papules on the cheeks, or lichen planus pigmentosus identified by visual inspection of the face confirms the diagnosis.9,12 Madarosis of the eyebrow was frequently cited by the experts as an associated symptom of FFA.

When do symptoms raise suspicion of lichen planopilaris?

• Suspected in the presence of pruritus, burning, tenderness, or pain associated with perifollicular erythema and scale in the setting of vertex and parietal alopecia.13

• Anagen hair release is observed during the hair pull test.11,14• The experts cited flesh-colored papules and lichen planus pigmentosus as frequently associated symptoms of lichen planopilaris.

Practice Implications

There are limitations to a virtual scalp examination—the inability to perform a scalp biopsy or administer certain treatments—but the consensus of the expert panel is that an initial alopecia assessment can be completed successfully utilizing TD. Although TD is not a replacement for an in-person dermatology visit, this technology has allowed for the diagnosis, treatment, and continuing care of many common dermatologic conditions without the patient needing to travel to the office.5

With the increased frequency of hair loss concerns documented over the last year and more patients seeking TD, it is imperative that dermatologists feel confident performing a virtual hair and scalp examination on all patients.1,3,4

References
  1. Kutlu Ö, Aktas¸ H, I·mren IG, et al. Short-term stress-related increasing cases of alopecia areata during the COVID-19 pandemic. J Dermatolog Treat. 2020;1. doi:10.1080/09546634.2020.1782820
  2. Cline A, Kazemi A, Moy J, et al. A surge in the incidence of telogen effluvium in minority predominant communities heavily impacted by COVID-19. J Am Acad Dermatol. 2021;84:773-775. doi:10.1016/j.jaad.2020.11.032
  3. Kutlu Ö, Metin A. Relative changes in the pattern of diseases presenting in dermatology outpatient clinic in the era of the COVID-19 pandemic. Dermatol Ther. 2020;33:e14096. doi:10.1111/dth.14096
  4. Tanacan E, Aksoy Sarac G, Emeksiz MAC, et al. Changing trends in dermatology practice during COVID-19 pandemic: a single tertiary center experience. Dermatol Ther. 2020;33:e14136. doi:10.1111/dth.14136
  5. Sharma A, Jindal V, Singla P, et al. Will teledermatology be the silver lining during and after COVID-19? Dermatol Ther. 2020;33:e13643. doi:10.1111/dth.13643
  6. Iscrupe L. How to receive virtual medical treatment while under quarantine. Allconnect website. Published March 26, 2020. Accessed December 9, 2021. https://www.allconnect.com/blog/online-doctor-visit-faq
  7. Elgash M, Dlova N, Ogunleye T, et al. Seborrheic dermatitis in skin of color: clinical considerations. J Drugs Dermatol. 2019;18:24-27.
  8. McLaurin CI. Annular facial dermatoses in blacks. Cutis. 1983;32:369-370, 384.
  9. Suchonwanit P, Hector CE, Bin Saif GA, McMichael AJ. Factors affecting the severity of central centrifugal cicatricial alopecia. Int J Dermatol. 2016;55:e338-343. doi:10.1111/ijd.13061
  10. Gabros S, Masood S. Central centrifugal cicatricial alopecia. StatPearls [Internet]. StatPearls Publishing; 2021. Updated July 20, 2021. Accessed December 9, 2021. https://www.ncbi.nlm.nih.gov/books/NBK559187/
  11. Ross EK, Tan E, Shapiro J. Update on primary cicatricial alopecias. J Am Acad Dermatol. 2005;53:1-37. doi:10.1016/j.jaad.2004.06.015
  12. Cobos G, Kim RH, Meehan S, et al. Lichen planus pigmentosus and lichen planopilaris. Dermatol Online J. 2016;22:13030/qt7hp8n6dn.
  13. Lyakhovitsky A, Amichai B, Sizopoulou C, et al. A case series of 46 patients with lichen planopilaris: demographics, clinical evaluation, and treatment experience. J Dermatolog Treat. 2015;26:275-279. doi:10.3109/09546634.2014.933165
  14. Tan E, Martinka M, Ball N, et al. Primary cicatricial alopecias: clinicopathology of 112 cases. J Am Acad Dermatol. 2004;50:25-32. doi:10.1016/j.jaad.2003.04.001
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Author and Disclosure Information

Ms. Wilson is from Rutgers New Jersey Medical School, Newark, New Jersey. Dr. McMichael is from the Department of Dermatology, Wake Forest School of Medicine, Winston-Salem, North Carolina. Dr. Alexis is from the Department of Dermatology, Weill Cornell Medicine, New York, New York. Dr. Agbai is from the Department of Dermatology, UC Davis School of Medicine, Sacramento, California. Dr. Elbuluk is from the Department of Dermatology, University of Southern California, Los Angeles. Dr. Callender is from private practice, Glenn Dale, Maryland. Dr. Burgess is from Howard University College of Medicine, Washington, DC, and private practice, Glenn Dale. Dr. Taylor is from the Perelman School of Medicine, University of Pennsylvania, Philadelphia.

The authors report no conflict of interest.

Correspondence: Britney N. Wilson, MBS, Rutgers New Jersey Medical School, 185 South Orange Ave, Newark, NJ 07103 (Bnw11@njms.rutgers.edu).

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Ms. Wilson is from Rutgers New Jersey Medical School, Newark, New Jersey. Dr. McMichael is from the Department of Dermatology, Wake Forest School of Medicine, Winston-Salem, North Carolina. Dr. Alexis is from the Department of Dermatology, Weill Cornell Medicine, New York, New York. Dr. Agbai is from the Department of Dermatology, UC Davis School of Medicine, Sacramento, California. Dr. Elbuluk is from the Department of Dermatology, University of Southern California, Los Angeles. Dr. Callender is from private practice, Glenn Dale, Maryland. Dr. Burgess is from Howard University College of Medicine, Washington, DC, and private practice, Glenn Dale. Dr. Taylor is from the Perelman School of Medicine, University of Pennsylvania, Philadelphia.

The authors report no conflict of interest.

Correspondence: Britney N. Wilson, MBS, Rutgers New Jersey Medical School, 185 South Orange Ave, Newark, NJ 07103 (Bnw11@njms.rutgers.edu).

Author and Disclosure Information

Ms. Wilson is from Rutgers New Jersey Medical School, Newark, New Jersey. Dr. McMichael is from the Department of Dermatology, Wake Forest School of Medicine, Winston-Salem, North Carolina. Dr. Alexis is from the Department of Dermatology, Weill Cornell Medicine, New York, New York. Dr. Agbai is from the Department of Dermatology, UC Davis School of Medicine, Sacramento, California. Dr. Elbuluk is from the Department of Dermatology, University of Southern California, Los Angeles. Dr. Callender is from private practice, Glenn Dale, Maryland. Dr. Burgess is from Howard University College of Medicine, Washington, DC, and private practice, Glenn Dale. Dr. Taylor is from the Perelman School of Medicine, University of Pennsylvania, Philadelphia.

The authors report no conflict of interest.

Correspondence: Britney N. Wilson, MBS, Rutgers New Jersey Medical School, 185 South Orange Ave, Newark, NJ 07103 (Bnw11@njms.rutgers.edu).

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Practice Gap

In accordance with World Health Organization guidelines on social distancing to limit transmission of SARS-CoV-2, dermatologists have relied on teledermatology (TD) to develop novel adaptations of traditional workflows, optimize patient care, and limit in-person appointments during the COVID-19 pandemic. Pandemic-induced physical and emotional stress were anticipated to increase the incidence of dermatologic diseases with psychologic triggers. 

The connection between hair loss and emotional stress is well documented for telogen effluvium and alopecia areata.1,2 As anticipated, dermatology visits increased during the COVID-19 pandemic for the diagnosis of alopecia1-4; a survey performed during the pandemic found that alopecia was one of the most common diagnoses dermatologists made through telehealth platforms.5

This article provides a practical guide for dermatology practitioners to efficiently and accurately assess alopecia by TD in all patients, with added considerations for skin of color patients.

Diagnostic Tools

The intersection of TD, as an effective mechanism for the diagnosis and treatment of dermatologic disorders, and the increase in alopecia observed during the COVID-19 pandemic prompted us to develop a workflow for conducting virtual scalp examinations. Seven dermatologists (A.M., A.A., O.A., N.E., V.C., C.M.B., S.C.T.) who are experts in hair disorders contributed to developing workflows to optimize the assessment of alopecia through a virtual scalp examination, with an emphasis on patients of color. These experts completed a 7-question survey (Table) detailing their approach to the virtual scalp examination. One author (B.N.W.) served as an independent reviewer and collated responses into the following workflows.

Survey Questions on Telemedicine Scalp Examination

Telemedicine Previsit Workflow

Components of the previsit workflow include:

• Instruct patients to provide all laboratory values and biopsy reports before the appointment.

• Test for a stable Wi-Fi connection using a speed test (available at https://www.speedtest.net/). A speed of 10 megabits/second or more is required for high-quality video via TD.6

Vertex scalp
FIGURE 1. Patient photograph of the vertex scalp prior to a teledermatology appointment. Instruct the patient to put their chin down. Taking the photograph with the hair parted from the nape of the neck to the mid frontal point of the hairline is particularly valuable for surveying hair density and diagnosing certain scalp disorders.

• Provide a handout illustrating the required photographs of the anterior hairline; the mid scalp, including vertex, bilateral parietal, and occipital scalp; and posterior hairline. Photographs should be uploaded 2 hours before the visit. Figures 1 and 2 are examples of photographs that should be requested.

Right and left temporal areas
FIGURE 2. Patient full-view photograph of the face, including eyebrows and eyelashes, prior to a teledermatology appointment. Other helpful images include the right and left temporal areas and the occipital area, if relevant (not shown).
 

 

• Request images with 2 or 3 different angles of the area of the scalp with the greatest involvement to help appreciate primary and secondary characteristics.

• Encourage patients to present with clean, recently shampooed, dried, and detangled natural hair, unless they have an itchy or flaky scalp.

• For concerns of scalp, hairline, eyebrow, or facial flaking and scaling, instruct the patient to avoid applying a moisturizer before the visit.

• Instruct the patient to remove false eyelashes, eyelash extensions, eyebrow pencil, hair camouflage, hair accessories, braids, extensions, weaves, twists, and other hairstyles so that the hair can be maneuvered to expose the scalp surface.

• Instruct the patient to have a comb, pic, or brush, or more than one of these implements, available during the visit.

Telemedicine Visit Workflow

Components of the visit workflow include:

• If a stable Wi-Fi connection cannot be established, switch to an audio-only visit to collect a pertinent history. Advise the patient that in-person follow-up must be scheduled.

• Confirm that (1) the patient is in a private setting where the scalp can be viewed and (2) lighting is positioned in front of the patient.

 

 

• Ensure that the patient’s hairline, full face, eyebrows, and eyelashes and, upon request, the vertex and posterior scalp, are completely visible.

• Initiate the virtual scalp examination by instructing the patient how to perform a hair pull test. Then, examine the pattern and distribution of hair loss alongside supplemental photographs.

• Instruct the patient to apply pressure with the fingertips throughout the scalp to help localize tenderness, which, in combination with the pattern of hair loss observed, might inform the diagnosis.

• Instruct the patient to scan the scalp with the fingertips for “bumps” to locate papules, pustules, and keloidal scars.

Diagnostic Pearls

Distribution of Alopecia—The experts noted that the pattern, distribution, and location of hair loss determined from the telemedicine alopecia assessment provided important clues to distinguish the type of alopecia.

Diagnostic clues for diffuse or generalized alopecia include:

• Either of these findings might be indicative of telogen effluvium or acquired trichorrhexis nodosa. Results of the hair pull test can help distinguish between these diagnoses.

• Recent stressful life events along with the presence of telogen hairs extracted during a hair pull test support the diagnosis of telogen effluvium.

 

 

• A history of external stress on the hair—thermal, traction, or chemical—along with broken hair shafts following the hair pull test support the diagnosis of acquired trichorrhexis nodosa.

Diagnostic clues for focal or patchy alopecia include:

• Alopecia areata generally presents as focal hair loss in an annular distribution; pruritus, erythema, and scale are absent.

• Seborrheic dermatitis can present as pruritic erythematous patches with scale distributed on the scalp and, in some cases, in the eyebrows, nasolabial folds, or paranasal skin.7 Some skin of color patients present with petaloid seborrheic dermatitis—pink or hypopigmented polycyclic coalescing rings with minimal scale.7,8

• Discoid lupus erythematosus, similar to seborrheic dermatitis, might present as pruritic, scaly, hypopigmented patches. However, in the experience of the experts, a more common presentation is tender erythematous patches of hair loss with central hypopigmentation and surrounding hyperpigmentation.

Diagnostic clues for vertex and mid scalp alopecia include:

• Androgenetic alopecia typically presents as a reduction of terminal hair density in the vertex and mid scalp regions (with widening through the midline part) and fine hair along the anterior hairline.9 Signs of concomitant hyperandrogenism, including facial hirsutism, acne, and obesity, might be observed.10

• Central centrifugal cicatricial alopecia typically affects the vertex and mid scalp with a shiny scalp appearance and follicular dropout.

Diagnostic clues for frontotemporal alopecia include:

• Frontal fibrosing alopecia (FFA) often presents with spared single terminal hairs (lonely hair sign).

 

 

• Traction alopecia commonly presents with the fringe hair sign.

Scalp Symptoms—The experts noted that the presence of symptoms (eg, pain, tenderness, pruritus) in conjunction with the pattern of hair loss might support the diagnosis of an inflammatory scarring alopecia.

When do symptoms raise suspicion of central centrifugal cicatricial alopecia?

• Suspected in the setting of vertex alopecia associated with tenderness, pain, or itching.

When do symptoms raise suspicion of FFA?

• Suspected when patients experience frontotemporal tenderness, pain, or burning associated with alopecia.

• The skin hue of the affected area might be lighter in color than, and contrast with, the darker hue of the photoaged upper forehead.11

 

 

• The lonely hair sign can aid in diagnosing FFA and distinguish it from the fringe sign of traction alopecia.

• Concurrent madarosis, flesh-colored papules on the cheeks, or lichen planus pigmentosus identified by visual inspection of the face confirms the diagnosis.9,12 Madarosis of the eyebrow was frequently cited by the experts as an associated symptom of FFA.

When do symptoms raise suspicion of lichen planopilaris?

• Suspected in the presence of pruritus, burning, tenderness, or pain associated with perifollicular erythema and scale in the setting of vertex and parietal alopecia.13

• Anagen hair release is observed during the hair pull test.11,14• The experts cited flesh-colored papules and lichen planus pigmentosus as frequently associated symptoms of lichen planopilaris.

Practice Implications

There are limitations to a virtual scalp examination—the inability to perform a scalp biopsy or administer certain treatments—but the consensus of the expert panel is that an initial alopecia assessment can be completed successfully utilizing TD. Although TD is not a replacement for an in-person dermatology visit, this technology has allowed for the diagnosis, treatment, and continuing care of many common dermatologic conditions without the patient needing to travel to the office.5

With the increased frequency of hair loss concerns documented over the last year and more patients seeking TD, it is imperative that dermatologists feel confident performing a virtual hair and scalp examination on all patients.1,3,4

Practice Gap

In accordance with World Health Organization guidelines on social distancing to limit transmission of SARS-CoV-2, dermatologists have relied on teledermatology (TD) to develop novel adaptations of traditional workflows, optimize patient care, and limit in-person appointments during the COVID-19 pandemic. Pandemic-induced physical and emotional stress were anticipated to increase the incidence of dermatologic diseases with psychologic triggers. 

The connection between hair loss and emotional stress is well documented for telogen effluvium and alopecia areata.1,2 As anticipated, dermatology visits increased during the COVID-19 pandemic for the diagnosis of alopecia1-4; a survey performed during the pandemic found that alopecia was one of the most common diagnoses dermatologists made through telehealth platforms.5

This article provides a practical guide for dermatology practitioners to efficiently and accurately assess alopecia by TD in all patients, with added considerations for skin of color patients.

Diagnostic Tools

The intersection of TD, as an effective mechanism for the diagnosis and treatment of dermatologic disorders, and the increase in alopecia observed during the COVID-19 pandemic prompted us to develop a workflow for conducting virtual scalp examinations. Seven dermatologists (A.M., A.A., O.A., N.E., V.C., C.M.B., S.C.T.) who are experts in hair disorders contributed to developing workflows to optimize the assessment of alopecia through a virtual scalp examination, with an emphasis on patients of color. These experts completed a 7-question survey (Table) detailing their approach to the virtual scalp examination. One author (B.N.W.) served as an independent reviewer and collated responses into the following workflows.

Survey Questions on Telemedicine Scalp Examination

Telemedicine Previsit Workflow

Components of the previsit workflow include:

• Instruct patients to provide all laboratory values and biopsy reports before the appointment.

• Test for a stable Wi-Fi connection using a speed test (available at https://www.speedtest.net/). A speed of 10 megabits/second or more is required for high-quality video via TD.6

Vertex scalp
FIGURE 1. Patient photograph of the vertex scalp prior to a teledermatology appointment. Instruct the patient to put their chin down. Taking the photograph with the hair parted from the nape of the neck to the mid frontal point of the hairline is particularly valuable for surveying hair density and diagnosing certain scalp disorders.

• Provide a handout illustrating the required photographs of the anterior hairline; the mid scalp, including vertex, bilateral parietal, and occipital scalp; and posterior hairline. Photographs should be uploaded 2 hours before the visit. Figures 1 and 2 are examples of photographs that should be requested.

Right and left temporal areas
FIGURE 2. Patient full-view photograph of the face, including eyebrows and eyelashes, prior to a teledermatology appointment. Other helpful images include the right and left temporal areas and the occipital area, if relevant (not shown).
 

 

• Request images with 2 or 3 different angles of the area of the scalp with the greatest involvement to help appreciate primary and secondary characteristics.

• Encourage patients to present with clean, recently shampooed, dried, and detangled natural hair, unless they have an itchy or flaky scalp.

• For concerns of scalp, hairline, eyebrow, or facial flaking and scaling, instruct the patient to avoid applying a moisturizer before the visit.

• Instruct the patient to remove false eyelashes, eyelash extensions, eyebrow pencil, hair camouflage, hair accessories, braids, extensions, weaves, twists, and other hairstyles so that the hair can be maneuvered to expose the scalp surface.

• Instruct the patient to have a comb, pic, or brush, or more than one of these implements, available during the visit.

Telemedicine Visit Workflow

Components of the visit workflow include:

• If a stable Wi-Fi connection cannot be established, switch to an audio-only visit to collect a pertinent history. Advise the patient that in-person follow-up must be scheduled.

• Confirm that (1) the patient is in a private setting where the scalp can be viewed and (2) lighting is positioned in front of the patient.

 

 

• Ensure that the patient’s hairline, full face, eyebrows, and eyelashes and, upon request, the vertex and posterior scalp, are completely visible.

• Initiate the virtual scalp examination by instructing the patient how to perform a hair pull test. Then, examine the pattern and distribution of hair loss alongside supplemental photographs.

• Instruct the patient to apply pressure with the fingertips throughout the scalp to help localize tenderness, which, in combination with the pattern of hair loss observed, might inform the diagnosis.

• Instruct the patient to scan the scalp with the fingertips for “bumps” to locate papules, pustules, and keloidal scars.

Diagnostic Pearls

Distribution of Alopecia—The experts noted that the pattern, distribution, and location of hair loss determined from the telemedicine alopecia assessment provided important clues to distinguish the type of alopecia.

Diagnostic clues for diffuse or generalized alopecia include:

• Either of these findings might be indicative of telogen effluvium or acquired trichorrhexis nodosa. Results of the hair pull test can help distinguish between these diagnoses.

• Recent stressful life events along with the presence of telogen hairs extracted during a hair pull test support the diagnosis of telogen effluvium.

 

 

• A history of external stress on the hair—thermal, traction, or chemical—along with broken hair shafts following the hair pull test support the diagnosis of acquired trichorrhexis nodosa.

Diagnostic clues for focal or patchy alopecia include:

• Alopecia areata generally presents as focal hair loss in an annular distribution; pruritus, erythema, and scale are absent.

• Seborrheic dermatitis can present as pruritic erythematous patches with scale distributed on the scalp and, in some cases, in the eyebrows, nasolabial folds, or paranasal skin.7 Some skin of color patients present with petaloid seborrheic dermatitis—pink or hypopigmented polycyclic coalescing rings with minimal scale.7,8

• Discoid lupus erythematosus, similar to seborrheic dermatitis, might present as pruritic, scaly, hypopigmented patches. However, in the experience of the experts, a more common presentation is tender erythematous patches of hair loss with central hypopigmentation and surrounding hyperpigmentation.

Diagnostic clues for vertex and mid scalp alopecia include:

• Androgenetic alopecia typically presents as a reduction of terminal hair density in the vertex and mid scalp regions (with widening through the midline part) and fine hair along the anterior hairline.9 Signs of concomitant hyperandrogenism, including facial hirsutism, acne, and obesity, might be observed.10

• Central centrifugal cicatricial alopecia typically affects the vertex and mid scalp with a shiny scalp appearance and follicular dropout.

Diagnostic clues for frontotemporal alopecia include:

• Frontal fibrosing alopecia (FFA) often presents with spared single terminal hairs (lonely hair sign).

 

 

• Traction alopecia commonly presents with the fringe hair sign.

Scalp Symptoms—The experts noted that the presence of symptoms (eg, pain, tenderness, pruritus) in conjunction with the pattern of hair loss might support the diagnosis of an inflammatory scarring alopecia.

When do symptoms raise suspicion of central centrifugal cicatricial alopecia?

• Suspected in the setting of vertex alopecia associated with tenderness, pain, or itching.

When do symptoms raise suspicion of FFA?

• Suspected when patients experience frontotemporal tenderness, pain, or burning associated with alopecia.

• The skin hue of the affected area might be lighter in color than, and contrast with, the darker hue of the photoaged upper forehead.11

 

 

• The lonely hair sign can aid in diagnosing FFA and distinguish it from the fringe sign of traction alopecia.

• Concurrent madarosis, flesh-colored papules on the cheeks, or lichen planus pigmentosus identified by visual inspection of the face confirms the diagnosis.9,12 Madarosis of the eyebrow was frequently cited by the experts as an associated symptom of FFA.

When do symptoms raise suspicion of lichen planopilaris?

• Suspected in the presence of pruritus, burning, tenderness, or pain associated with perifollicular erythema and scale in the setting of vertex and parietal alopecia.13

• Anagen hair release is observed during the hair pull test.11,14• The experts cited flesh-colored papules and lichen planus pigmentosus as frequently associated symptoms of lichen planopilaris.

Practice Implications

There are limitations to a virtual scalp examination—the inability to perform a scalp biopsy or administer certain treatments—but the consensus of the expert panel is that an initial alopecia assessment can be completed successfully utilizing TD. Although TD is not a replacement for an in-person dermatology visit, this technology has allowed for the diagnosis, treatment, and continuing care of many common dermatologic conditions without the patient needing to travel to the office.5

With the increased frequency of hair loss concerns documented over the last year and more patients seeking TD, it is imperative that dermatologists feel confident performing a virtual hair and scalp examination on all patients.1,3,4

References
  1. Kutlu Ö, Aktas¸ H, I·mren IG, et al. Short-term stress-related increasing cases of alopecia areata during the COVID-19 pandemic. J Dermatolog Treat. 2020;1. doi:10.1080/09546634.2020.1782820
  2. Cline A, Kazemi A, Moy J, et al. A surge in the incidence of telogen effluvium in minority predominant communities heavily impacted by COVID-19. J Am Acad Dermatol. 2021;84:773-775. doi:10.1016/j.jaad.2020.11.032
  3. Kutlu Ö, Metin A. Relative changes in the pattern of diseases presenting in dermatology outpatient clinic in the era of the COVID-19 pandemic. Dermatol Ther. 2020;33:e14096. doi:10.1111/dth.14096
  4. Tanacan E, Aksoy Sarac G, Emeksiz MAC, et al. Changing trends in dermatology practice during COVID-19 pandemic: a single tertiary center experience. Dermatol Ther. 2020;33:e14136. doi:10.1111/dth.14136
  5. Sharma A, Jindal V, Singla P, et al. Will teledermatology be the silver lining during and after COVID-19? Dermatol Ther. 2020;33:e13643. doi:10.1111/dth.13643
  6. Iscrupe L. How to receive virtual medical treatment while under quarantine. Allconnect website. Published March 26, 2020. Accessed December 9, 2021. https://www.allconnect.com/blog/online-doctor-visit-faq
  7. Elgash M, Dlova N, Ogunleye T, et al. Seborrheic dermatitis in skin of color: clinical considerations. J Drugs Dermatol. 2019;18:24-27.
  8. McLaurin CI. Annular facial dermatoses in blacks. Cutis. 1983;32:369-370, 384.
  9. Suchonwanit P, Hector CE, Bin Saif GA, McMichael AJ. Factors affecting the severity of central centrifugal cicatricial alopecia. Int J Dermatol. 2016;55:e338-343. doi:10.1111/ijd.13061
  10. Gabros S, Masood S. Central centrifugal cicatricial alopecia. StatPearls [Internet]. StatPearls Publishing; 2021. Updated July 20, 2021. Accessed December 9, 2021. https://www.ncbi.nlm.nih.gov/books/NBK559187/
  11. Ross EK, Tan E, Shapiro J. Update on primary cicatricial alopecias. J Am Acad Dermatol. 2005;53:1-37. doi:10.1016/j.jaad.2004.06.015
  12. Cobos G, Kim RH, Meehan S, et al. Lichen planus pigmentosus and lichen planopilaris. Dermatol Online J. 2016;22:13030/qt7hp8n6dn.
  13. Lyakhovitsky A, Amichai B, Sizopoulou C, et al. A case series of 46 patients with lichen planopilaris: demographics, clinical evaluation, and treatment experience. J Dermatolog Treat. 2015;26:275-279. doi:10.3109/09546634.2014.933165
  14. Tan E, Martinka M, Ball N, et al. Primary cicatricial alopecias: clinicopathology of 112 cases. J Am Acad Dermatol. 2004;50:25-32. doi:10.1016/j.jaad.2003.04.001
References
  1. Kutlu Ö, Aktas¸ H, I·mren IG, et al. Short-term stress-related increasing cases of alopecia areata during the COVID-19 pandemic. J Dermatolog Treat. 2020;1. doi:10.1080/09546634.2020.1782820
  2. Cline A, Kazemi A, Moy J, et al. A surge in the incidence of telogen effluvium in minority predominant communities heavily impacted by COVID-19. J Am Acad Dermatol. 2021;84:773-775. doi:10.1016/j.jaad.2020.11.032
  3. Kutlu Ö, Metin A. Relative changes in the pattern of diseases presenting in dermatology outpatient clinic in the era of the COVID-19 pandemic. Dermatol Ther. 2020;33:e14096. doi:10.1111/dth.14096
  4. Tanacan E, Aksoy Sarac G, Emeksiz MAC, et al. Changing trends in dermatology practice during COVID-19 pandemic: a single tertiary center experience. Dermatol Ther. 2020;33:e14136. doi:10.1111/dth.14136
  5. Sharma A, Jindal V, Singla P, et al. Will teledermatology be the silver lining during and after COVID-19? Dermatol Ther. 2020;33:e13643. doi:10.1111/dth.13643
  6. Iscrupe L. How to receive virtual medical treatment while under quarantine. Allconnect website. Published March 26, 2020. Accessed December 9, 2021. https://www.allconnect.com/blog/online-doctor-visit-faq
  7. Elgash M, Dlova N, Ogunleye T, et al. Seborrheic dermatitis in skin of color: clinical considerations. J Drugs Dermatol. 2019;18:24-27.
  8. McLaurin CI. Annular facial dermatoses in blacks. Cutis. 1983;32:369-370, 384.
  9. Suchonwanit P, Hector CE, Bin Saif GA, McMichael AJ. Factors affecting the severity of central centrifugal cicatricial alopecia. Int J Dermatol. 2016;55:e338-343. doi:10.1111/ijd.13061
  10. Gabros S, Masood S. Central centrifugal cicatricial alopecia. StatPearls [Internet]. StatPearls Publishing; 2021. Updated July 20, 2021. Accessed December 9, 2021. https://www.ncbi.nlm.nih.gov/books/NBK559187/
  11. Ross EK, Tan E, Shapiro J. Update on primary cicatricial alopecias. J Am Acad Dermatol. 2005;53:1-37. doi:10.1016/j.jaad.2004.06.015
  12. Cobos G, Kim RH, Meehan S, et al. Lichen planus pigmentosus and lichen planopilaris. Dermatol Online J. 2016;22:13030/qt7hp8n6dn.
  13. Lyakhovitsky A, Amichai B, Sizopoulou C, et al. A case series of 46 patients with lichen planopilaris: demographics, clinical evaluation, and treatment experience. J Dermatolog Treat. 2015;26:275-279. doi:10.3109/09546634.2014.933165
  14. Tan E, Martinka M, Ball N, et al. Primary cicatricial alopecias: clinicopathology of 112 cases. J Am Acad Dermatol. 2004;50:25-32. doi:10.1016/j.jaad.2003.04.001
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Herpes Zoster Following a Nucleoside-Modified Messenger RNA COVID-19 Vaccine

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Herpes Zoster Following a Nucleoside-Modified Messenger RNA COVID-19 Vaccine

Since the end of 2019, COVID-19 infection caused by SARS-CoV-2 has spread in a worldwide pandemic. The first cutaneous manifestations possibly linked to COVID-19 were reported in spring 2020.1 Herpes zoster (HZ) was suspected as a predictive cutaneous manifestation of COVID-19 with a debated prognostic significance.2 The end of 2020 was marked with the beginning of vaccination against COVID-19, and safety studies reported few side effects after vaccination with nucleoside-modified messenger RNA (mRNA) COVID-19 vaccines.3 Real-life use of vaccines could lead to the occurrence of potential side effects (or fortuitous medical events) that were not observed in these studies. We report a series of 5 cases of HZ occurring after vaccination with a nucleoside-modified mRNA COVID-19 vaccine extracted from a declarative cohort of cutaneous reactions in our vaccination center.

Case Series

We identified 2 men and 3 women (Table) who experienced HZ after vaccination with a nucleoside-modified mRNA COVID-19 vaccine (Comirnaty, Pfizer-BioNTech). Patients fulfilled French governmental criteria for vaccination at the time of the report—older than 75 years or a health care professional—and they were vaccinated at the vaccination center of a French university hospital. The median age of the patients was 56 years (interquartile range [IQR], 51–82 years). One patient was diagnosed with COVID-19 in February 2020. A medical history of HZ was found in 1 patient. No medical history of immunosuppression was noted. Herpes zoster was observed on the same side of the body as the vaccination site in 4 patients. The median delay before the onset of symptoms was 6 days (IQR, 1–15 days) after injection. The median duration of the symptoms was 13 days (IQR, 11.5–16.5 days). Clinical signs of HZ were mild with few vesicles in 4 patients, and we observed a notably long delay between the onset of pain and the eruption of vesicles in 2 cases (4 and 10 days, respectively). The clinical diagnosis of HZ was confirmed by a dermatologist for all patients (Figures 1 and 2). Polymerase chain reaction assays for the detection of the varicella-zoster virus were performed in 2 cases and were positive. A complete blood cell count was performed in 1 patient, and we observed isolated lymphopenia (500/mm3 [reference range, 1000–4000/mm3]). Herpes zoster occurred after the first dose of vaccine in 4 patients and after the second dose for 1 patient. Three patients were treated with antiviral therapy (acyclovir) for 7 days. Three patients recovered from symptoms within 2 weeks and 2 patients within 1 week.

Main Characteristics of Patients

Comment

We report a series of HZ cases occurring after vaccination with a nucleoside-modified mRNA COVID-19 vaccine. We did not observe complicated HZ, and most of the time, HZ lesions were located on the same side of the body as the vaccine injection. One case of HZ after COVID-19 vaccination was reported by Bostan and Yalici-Armagan,4 but it followed injection with an inactivated vaccine, which is different from our series. Herpes zoster remains rarely reported, mainly following mRNA COVID-19 vaccination.5

Herpes zoster with localized, fluid-filled vesicles on the internal and posterior aspects of the right arm in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine
FIGURE 1. Herpes zoster with localized, fluid-filled vesicles on the internal and posterior aspects of the right arm in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine (patient 3).

Cases of HZ after vaccination have been reported after the live attenuated zoster or yellow fever vaccines, but HZ should not appear as a concomitant effect after any type of vaccines.6,7 Kawai et al8 reported that the incidence rate of HZ ranged from 3 to 5 cases per 1000 person-years in North America, Europe, and Asia-Pacific. The risk for recurrence of HZ ranged from 1% to 6% depending on the type of study design, age distribution of studied populations, and definition.8 In another retrospective database analysis in Israel, the incidence density rate of HZ was 3.46 cases per 1000 person-years in the total population and 12.8 cases per 1000 person-years in immunocompromised patients, therefore the immunocompromised status is important to consider.9

Scattered discrete vesicles on the anterior aspect of the left elbow and forearm
FIGURE 2. Scattered discrete vesicles on the anterior aspect of the left elbow and forearm with predominant painful symptoms and positive polymerase chain reaction assay for detection of varicella-zoster virus in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine (patient 1).

In our declarative cohort of skin eruptions before vaccination, we recorded 11 cases of HZ among 148 skin eruptions (7.43%) at the time of the study, but the design of the study did not allow us to estimate the exact incidence of HZ in the global COVID-19–vaccinated population because our study was not based on a systematic and prospective analysis of all vaccinated patients. The comparison between the prevalence of HZ in the COVID-19–vaccinated population and the nonvaccinated population is difficult owing to the lack of data about HZ in the nonvaccinated population at the time of our analysis. Furthermore, we did not include all vaccinated patients in a prospective follow-up. We highlight the importance of medical history of patients that differed between vaccinated patients (at the time of our analysis) and the global population due to French governmental access criteria to vaccination. The link to prior SARS-CoV-2 infection was uncertain because a medical history of COVID-19 was found in only 1 patient. Only 1 patient had a history of HZ, which is not a contraindication of COVID-19 vaccination.

Postinjection pains are frequent with COVID-19 vaccines, but clinical signs such as extension of pain, burning sensation, and eruption of vesicles should lead the physician to consider the diagnosis of HZ, regardless of the delay between the injection and the symptoms. Indeed, the onset of symptoms could be late, and the clinical presentation initially may be mistaken for an injection-site reaction, which is a frequent known side effect of vaccines. These new cases do not prove causality between COVID-19 vaccination and HZ. Varicella-zoster virus remains latent in dorsal-root or ganglia after primary infection, and HZ caused by reactivation of varicella-zoster virus may occur spontaneously or be triggered. In our series, we did not observe medical history of immunosuppression, and no other known risk factors of HZ (eg, radiation therapy, physical trauma, fever after vaccination) were recorded. The pathophysiologic mechanism remains elusive, but local vaccine-induced immunomodulation or an inflammatory state may be involved.

Conclusion

Our case series highlights that clinicians must remain vigilant to diagnose HZ early to prevent potential complications, such as postherpetic neuralgia. Also, vaccination should not be contraindicated in patients with medical history of HZ; the occurrence of HZ does not justify avoiding the second injection of the vaccine due to the benefit of vaccination.

References
  1. Recalcati S. Cutaneous manifestations in COVID-19: a first perspective. J Eur Acad Dermatol Venereol. 2020;34:E212-E213.
  2. Elsaie ML, Youssef EA, Nada HA. Herpes zoster might be an indicator for latent COVID 19 infection. Dermatol Ther. 2020;33:e13666.
  3. Polack FP, Thomas SJ, Kitchin N, et al. Safety and efficacy of the BNT162b2 mRNA COVID-19 vaccine. N Engl J Med. 2020;383:2603-2615.
  4. Bostan E, Yalici-Armagan B. Herpes zoster following inactivated COVID-19 vaccine: a coexistence or coincidence? J Cosmet Dermatol. 2021;20:1566-1567.
  5. Desai HD, Sharma K, Shah A, et al. Can SARS-CoV-2 vaccine increase the risk of reactivation of varicella zoster? a systematic review. J Cosmet Dermatol. 2021;20:3350-3361.
  6. Fahlbusch M, Wesselmann U, Lehmann P. Herpes zoster after varicella-zoster vaccination [in German]. Hautarzt. 2013;64:107-109.
  7. Bayas JM, González-Alvarez R, Guinovart C. Herpes zoster after yellow fever vaccination. J Travel Med. 2007;14:65-66.
  8. Kawai K, Gebremeskel BG, Acosta CJ. Systematic review of incidence and complications of herpes zoster: towards a global perspective. BMJ Open. 2014;10;4:E004833.
  9. Weitzman D, Shavit O, Stein M, et al. A population based study of the epidemiology of herpes zoster and its complications. J Infect. 2013;67:463-469.
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From CHU Lille, France. Drs. Dezoteux, Massip, Marcant, and Staumont-Sallé are from Service de Dermatologie. Dr. Sobaszek is from Service de Médecine du travail. Drs. Chopin and Vuotto are from Service des Maladies Infectieuses et Tropicales. Drs. Dezoteux, Marcant, and Staumont-Sallé also are from University of Lille, Inserm, CHU Lille, INFINITE - Institute for Translational Research in Inflammation, France.

The authors report no conflict of interest.

Correspondence: Frédéric Dezoteux, MD, Hôpital Claude Huriez, rue Michel Polonovski, 59037 Lille, France (frederic.dezoteux@chru-lille.fr).
 

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From CHU Lille, France. Drs. Dezoteux, Massip, Marcant, and Staumont-Sallé are from Service de Dermatologie. Dr. Sobaszek is from Service de Médecine du travail. Drs. Chopin and Vuotto are from Service des Maladies Infectieuses et Tropicales. Drs. Dezoteux, Marcant, and Staumont-Sallé also are from University of Lille, Inserm, CHU Lille, INFINITE - Institute for Translational Research in Inflammation, France.

The authors report no conflict of interest.

Correspondence: Frédéric Dezoteux, MD, Hôpital Claude Huriez, rue Michel Polonovski, 59037 Lille, France (frederic.dezoteux@chru-lille.fr).
 

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From CHU Lille, France. Drs. Dezoteux, Massip, Marcant, and Staumont-Sallé are from Service de Dermatologie. Dr. Sobaszek is from Service de Médecine du travail. Drs. Chopin and Vuotto are from Service des Maladies Infectieuses et Tropicales. Drs. Dezoteux, Marcant, and Staumont-Sallé also are from University of Lille, Inserm, CHU Lille, INFINITE - Institute for Translational Research in Inflammation, France.

The authors report no conflict of interest.

Correspondence: Frédéric Dezoteux, MD, Hôpital Claude Huriez, rue Michel Polonovski, 59037 Lille, France (frederic.dezoteux@chru-lille.fr).
 

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Since the end of 2019, COVID-19 infection caused by SARS-CoV-2 has spread in a worldwide pandemic. The first cutaneous manifestations possibly linked to COVID-19 were reported in spring 2020.1 Herpes zoster (HZ) was suspected as a predictive cutaneous manifestation of COVID-19 with a debated prognostic significance.2 The end of 2020 was marked with the beginning of vaccination against COVID-19, and safety studies reported few side effects after vaccination with nucleoside-modified messenger RNA (mRNA) COVID-19 vaccines.3 Real-life use of vaccines could lead to the occurrence of potential side effects (or fortuitous medical events) that were not observed in these studies. We report a series of 5 cases of HZ occurring after vaccination with a nucleoside-modified mRNA COVID-19 vaccine extracted from a declarative cohort of cutaneous reactions in our vaccination center.

Case Series

We identified 2 men and 3 women (Table) who experienced HZ after vaccination with a nucleoside-modified mRNA COVID-19 vaccine (Comirnaty, Pfizer-BioNTech). Patients fulfilled French governmental criteria for vaccination at the time of the report—older than 75 years or a health care professional—and they were vaccinated at the vaccination center of a French university hospital. The median age of the patients was 56 years (interquartile range [IQR], 51–82 years). One patient was diagnosed with COVID-19 in February 2020. A medical history of HZ was found in 1 patient. No medical history of immunosuppression was noted. Herpes zoster was observed on the same side of the body as the vaccination site in 4 patients. The median delay before the onset of symptoms was 6 days (IQR, 1–15 days) after injection. The median duration of the symptoms was 13 days (IQR, 11.5–16.5 days). Clinical signs of HZ were mild with few vesicles in 4 patients, and we observed a notably long delay between the onset of pain and the eruption of vesicles in 2 cases (4 and 10 days, respectively). The clinical diagnosis of HZ was confirmed by a dermatologist for all patients (Figures 1 and 2). Polymerase chain reaction assays for the detection of the varicella-zoster virus were performed in 2 cases and were positive. A complete blood cell count was performed in 1 patient, and we observed isolated lymphopenia (500/mm3 [reference range, 1000–4000/mm3]). Herpes zoster occurred after the first dose of vaccine in 4 patients and after the second dose for 1 patient. Three patients were treated with antiviral therapy (acyclovir) for 7 days. Three patients recovered from symptoms within 2 weeks and 2 patients within 1 week.

Main Characteristics of Patients

Comment

We report a series of HZ cases occurring after vaccination with a nucleoside-modified mRNA COVID-19 vaccine. We did not observe complicated HZ, and most of the time, HZ lesions were located on the same side of the body as the vaccine injection. One case of HZ after COVID-19 vaccination was reported by Bostan and Yalici-Armagan,4 but it followed injection with an inactivated vaccine, which is different from our series. Herpes zoster remains rarely reported, mainly following mRNA COVID-19 vaccination.5

Herpes zoster with localized, fluid-filled vesicles on the internal and posterior aspects of the right arm in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine
FIGURE 1. Herpes zoster with localized, fluid-filled vesicles on the internal and posterior aspects of the right arm in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine (patient 3).

Cases of HZ after vaccination have been reported after the live attenuated zoster or yellow fever vaccines, but HZ should not appear as a concomitant effect after any type of vaccines.6,7 Kawai et al8 reported that the incidence rate of HZ ranged from 3 to 5 cases per 1000 person-years in North America, Europe, and Asia-Pacific. The risk for recurrence of HZ ranged from 1% to 6% depending on the type of study design, age distribution of studied populations, and definition.8 In another retrospective database analysis in Israel, the incidence density rate of HZ was 3.46 cases per 1000 person-years in the total population and 12.8 cases per 1000 person-years in immunocompromised patients, therefore the immunocompromised status is important to consider.9

Scattered discrete vesicles on the anterior aspect of the left elbow and forearm
FIGURE 2. Scattered discrete vesicles on the anterior aspect of the left elbow and forearm with predominant painful symptoms and positive polymerase chain reaction assay for detection of varicella-zoster virus in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine (patient 1).

In our declarative cohort of skin eruptions before vaccination, we recorded 11 cases of HZ among 148 skin eruptions (7.43%) at the time of the study, but the design of the study did not allow us to estimate the exact incidence of HZ in the global COVID-19–vaccinated population because our study was not based on a systematic and prospective analysis of all vaccinated patients. The comparison between the prevalence of HZ in the COVID-19–vaccinated population and the nonvaccinated population is difficult owing to the lack of data about HZ in the nonvaccinated population at the time of our analysis. Furthermore, we did not include all vaccinated patients in a prospective follow-up. We highlight the importance of medical history of patients that differed between vaccinated patients (at the time of our analysis) and the global population due to French governmental access criteria to vaccination. The link to prior SARS-CoV-2 infection was uncertain because a medical history of COVID-19 was found in only 1 patient. Only 1 patient had a history of HZ, which is not a contraindication of COVID-19 vaccination.

Postinjection pains are frequent with COVID-19 vaccines, but clinical signs such as extension of pain, burning sensation, and eruption of vesicles should lead the physician to consider the diagnosis of HZ, regardless of the delay between the injection and the symptoms. Indeed, the onset of symptoms could be late, and the clinical presentation initially may be mistaken for an injection-site reaction, which is a frequent known side effect of vaccines. These new cases do not prove causality between COVID-19 vaccination and HZ. Varicella-zoster virus remains latent in dorsal-root or ganglia after primary infection, and HZ caused by reactivation of varicella-zoster virus may occur spontaneously or be triggered. In our series, we did not observe medical history of immunosuppression, and no other known risk factors of HZ (eg, radiation therapy, physical trauma, fever after vaccination) were recorded. The pathophysiologic mechanism remains elusive, but local vaccine-induced immunomodulation or an inflammatory state may be involved.

Conclusion

Our case series highlights that clinicians must remain vigilant to diagnose HZ early to prevent potential complications, such as postherpetic neuralgia. Also, vaccination should not be contraindicated in patients with medical history of HZ; the occurrence of HZ does not justify avoiding the second injection of the vaccine due to the benefit of vaccination.

Since the end of 2019, COVID-19 infection caused by SARS-CoV-2 has spread in a worldwide pandemic. The first cutaneous manifestations possibly linked to COVID-19 were reported in spring 2020.1 Herpes zoster (HZ) was suspected as a predictive cutaneous manifestation of COVID-19 with a debated prognostic significance.2 The end of 2020 was marked with the beginning of vaccination against COVID-19, and safety studies reported few side effects after vaccination with nucleoside-modified messenger RNA (mRNA) COVID-19 vaccines.3 Real-life use of vaccines could lead to the occurrence of potential side effects (or fortuitous medical events) that were not observed in these studies. We report a series of 5 cases of HZ occurring after vaccination with a nucleoside-modified mRNA COVID-19 vaccine extracted from a declarative cohort of cutaneous reactions in our vaccination center.

Case Series

We identified 2 men and 3 women (Table) who experienced HZ after vaccination with a nucleoside-modified mRNA COVID-19 vaccine (Comirnaty, Pfizer-BioNTech). Patients fulfilled French governmental criteria for vaccination at the time of the report—older than 75 years or a health care professional—and they were vaccinated at the vaccination center of a French university hospital. The median age of the patients was 56 years (interquartile range [IQR], 51–82 years). One patient was diagnosed with COVID-19 in February 2020. A medical history of HZ was found in 1 patient. No medical history of immunosuppression was noted. Herpes zoster was observed on the same side of the body as the vaccination site in 4 patients. The median delay before the onset of symptoms was 6 days (IQR, 1–15 days) after injection. The median duration of the symptoms was 13 days (IQR, 11.5–16.5 days). Clinical signs of HZ were mild with few vesicles in 4 patients, and we observed a notably long delay between the onset of pain and the eruption of vesicles in 2 cases (4 and 10 days, respectively). The clinical diagnosis of HZ was confirmed by a dermatologist for all patients (Figures 1 and 2). Polymerase chain reaction assays for the detection of the varicella-zoster virus were performed in 2 cases and were positive. A complete blood cell count was performed in 1 patient, and we observed isolated lymphopenia (500/mm3 [reference range, 1000–4000/mm3]). Herpes zoster occurred after the first dose of vaccine in 4 patients and after the second dose for 1 patient. Three patients were treated with antiviral therapy (acyclovir) for 7 days. Three patients recovered from symptoms within 2 weeks and 2 patients within 1 week.

Main Characteristics of Patients

Comment

We report a series of HZ cases occurring after vaccination with a nucleoside-modified mRNA COVID-19 vaccine. We did not observe complicated HZ, and most of the time, HZ lesions were located on the same side of the body as the vaccine injection. One case of HZ after COVID-19 vaccination was reported by Bostan and Yalici-Armagan,4 but it followed injection with an inactivated vaccine, which is different from our series. Herpes zoster remains rarely reported, mainly following mRNA COVID-19 vaccination.5

Herpes zoster with localized, fluid-filled vesicles on the internal and posterior aspects of the right arm in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine
FIGURE 1. Herpes zoster with localized, fluid-filled vesicles on the internal and posterior aspects of the right arm in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine (patient 3).

Cases of HZ after vaccination have been reported after the live attenuated zoster or yellow fever vaccines, but HZ should not appear as a concomitant effect after any type of vaccines.6,7 Kawai et al8 reported that the incidence rate of HZ ranged from 3 to 5 cases per 1000 person-years in North America, Europe, and Asia-Pacific. The risk for recurrence of HZ ranged from 1% to 6% depending on the type of study design, age distribution of studied populations, and definition.8 In another retrospective database analysis in Israel, the incidence density rate of HZ was 3.46 cases per 1000 person-years in the total population and 12.8 cases per 1000 person-years in immunocompromised patients, therefore the immunocompromised status is important to consider.9

Scattered discrete vesicles on the anterior aspect of the left elbow and forearm
FIGURE 2. Scattered discrete vesicles on the anterior aspect of the left elbow and forearm with predominant painful symptoms and positive polymerase chain reaction assay for detection of varicella-zoster virus in a patient who received a nucleoside-modified messenger RNA COVID-19 vaccine (patient 1).

In our declarative cohort of skin eruptions before vaccination, we recorded 11 cases of HZ among 148 skin eruptions (7.43%) at the time of the study, but the design of the study did not allow us to estimate the exact incidence of HZ in the global COVID-19–vaccinated population because our study was not based on a systematic and prospective analysis of all vaccinated patients. The comparison between the prevalence of HZ in the COVID-19–vaccinated population and the nonvaccinated population is difficult owing to the lack of data about HZ in the nonvaccinated population at the time of our analysis. Furthermore, we did not include all vaccinated patients in a prospective follow-up. We highlight the importance of medical history of patients that differed between vaccinated patients (at the time of our analysis) and the global population due to French governmental access criteria to vaccination. The link to prior SARS-CoV-2 infection was uncertain because a medical history of COVID-19 was found in only 1 patient. Only 1 patient had a history of HZ, which is not a contraindication of COVID-19 vaccination.

Postinjection pains are frequent with COVID-19 vaccines, but clinical signs such as extension of pain, burning sensation, and eruption of vesicles should lead the physician to consider the diagnosis of HZ, regardless of the delay between the injection and the symptoms. Indeed, the onset of symptoms could be late, and the clinical presentation initially may be mistaken for an injection-site reaction, which is a frequent known side effect of vaccines. These new cases do not prove causality between COVID-19 vaccination and HZ. Varicella-zoster virus remains latent in dorsal-root or ganglia after primary infection, and HZ caused by reactivation of varicella-zoster virus may occur spontaneously or be triggered. In our series, we did not observe medical history of immunosuppression, and no other known risk factors of HZ (eg, radiation therapy, physical trauma, fever after vaccination) were recorded. The pathophysiologic mechanism remains elusive, but local vaccine-induced immunomodulation or an inflammatory state may be involved.

Conclusion

Our case series highlights that clinicians must remain vigilant to diagnose HZ early to prevent potential complications, such as postherpetic neuralgia. Also, vaccination should not be contraindicated in patients with medical history of HZ; the occurrence of HZ does not justify avoiding the second injection of the vaccine due to the benefit of vaccination.

References
  1. Recalcati S. Cutaneous manifestations in COVID-19: a first perspective. J Eur Acad Dermatol Venereol. 2020;34:E212-E213.
  2. Elsaie ML, Youssef EA, Nada HA. Herpes zoster might be an indicator for latent COVID 19 infection. Dermatol Ther. 2020;33:e13666.
  3. Polack FP, Thomas SJ, Kitchin N, et al. Safety and efficacy of the BNT162b2 mRNA COVID-19 vaccine. N Engl J Med. 2020;383:2603-2615.
  4. Bostan E, Yalici-Armagan B. Herpes zoster following inactivated COVID-19 vaccine: a coexistence or coincidence? J Cosmet Dermatol. 2021;20:1566-1567.
  5. Desai HD, Sharma K, Shah A, et al. Can SARS-CoV-2 vaccine increase the risk of reactivation of varicella zoster? a systematic review. J Cosmet Dermatol. 2021;20:3350-3361.
  6. Fahlbusch M, Wesselmann U, Lehmann P. Herpes zoster after varicella-zoster vaccination [in German]. Hautarzt. 2013;64:107-109.
  7. Bayas JM, González-Alvarez R, Guinovart C. Herpes zoster after yellow fever vaccination. J Travel Med. 2007;14:65-66.
  8. Kawai K, Gebremeskel BG, Acosta CJ. Systematic review of incidence and complications of herpes zoster: towards a global perspective. BMJ Open. 2014;10;4:E004833.
  9. Weitzman D, Shavit O, Stein M, et al. A population based study of the epidemiology of herpes zoster and its complications. J Infect. 2013;67:463-469.
References
  1. Recalcati S. Cutaneous manifestations in COVID-19: a first perspective. J Eur Acad Dermatol Venereol. 2020;34:E212-E213.
  2. Elsaie ML, Youssef EA, Nada HA. Herpes zoster might be an indicator for latent COVID 19 infection. Dermatol Ther. 2020;33:e13666.
  3. Polack FP, Thomas SJ, Kitchin N, et al. Safety and efficacy of the BNT162b2 mRNA COVID-19 vaccine. N Engl J Med. 2020;383:2603-2615.
  4. Bostan E, Yalici-Armagan B. Herpes zoster following inactivated COVID-19 vaccine: a coexistence or coincidence? J Cosmet Dermatol. 2021;20:1566-1567.
  5. Desai HD, Sharma K, Shah A, et al. Can SARS-CoV-2 vaccine increase the risk of reactivation of varicella zoster? a systematic review. J Cosmet Dermatol. 2021;20:3350-3361.
  6. Fahlbusch M, Wesselmann U, Lehmann P. Herpes zoster after varicella-zoster vaccination [in German]. Hautarzt. 2013;64:107-109.
  7. Bayas JM, González-Alvarez R, Guinovart C. Herpes zoster after yellow fever vaccination. J Travel Med. 2007;14:65-66.
  8. Kawai K, Gebremeskel BG, Acosta CJ. Systematic review of incidence and complications of herpes zoster: towards a global perspective. BMJ Open. 2014;10;4:E004833.
  9. Weitzman D, Shavit O, Stein M, et al. A population based study of the epidemiology of herpes zoster and its complications. J Infect. 2013;67:463-469.
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Practice Points

  • Herpes zoster (HZ) has been reported following COVID-19 vaccination.
  • Postinjection pain is common with COVID-19 vaccination, but clinical signs such as extension of pain, burning sensation, and eruption of vesicles should lead the physician to consider the diagnosis of HZ, regardless of the delay in onset between the injection and the symptoms.
  • When indicated, the second vaccine dose should not be avoided in patients who are diagnosed with HZ.
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Pursuit of a Research Year or Dual Degree by Dermatology Residency Applicants: A Cross-Sectional Study

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To the Editor:

Securing a dermatology residency position is extraordinarily competitive. The match rate for US allopathic seniors for dermatology is 84.7%, among the lowest of all medical specialties. Matched dermatology applicants boast a mean US Medical Licensing Examination (USMLE) Step 1 score of 248, the second highest of all specialties.1 To gain an edge, applicants are faced with decisions regarding pursuit of dedicated research time and additional professional degrees.

We conducted a cross-sectional study to determine how many dermatology residency applicants pursue additional years of training and how this decision relates to USMLE scores and other metrics. This study was approved by the University of Michigan institutional review board. Using Electronic Residency Application Service applicant data, all applicants to the University of Michigan Medical School (Ann Arbor, Michigan) dermatology residency program for the 2018-2019 application cycle were included.

Analysis of variance was performed to determine differences in mean USMLE Step 1 scores, Step 2 Clinical Knowledge scores, and number of research experiences (eg, presentations, publications) between groups. A 2-tailed z test of independent samples was performed for individual pairwise subgroup analyses.

There were 608 (377 female, 231 male; mean age, 27.9 years) applicants from 199 different medical schools; 550 graduated with an MD degree, 40 with a DO degree, and 18 were international medical graduates (IMGs)(eg, MBBS, MBBCh, BAO, MBChB). One hundred eighty-four applicants (30.2%) pursued either a second professional degree or a dedicated research period lasting at least 12 months. Twenty-eight applicants (4.6%) obtained a master’s degree, 21 (3.5%) obtained a doctorate, and 135 (22.2%) pursued dedicated research.

Of the 40 DO applicants, 1 (2.5%) pursued dedicated research time; 0 (zero) completed a dual degree. None (zero) of the 18 IMGs pursued a dual degree or dedicated research time. When the scores of applicants who pursued additional training and the scores of applicants who did not were compared, neither mean USMLE Step 1 scores nor mean USMLE Step 2 Clinical Knowledge scores were statistically different (P=.31 and P=.44, respectively). Applicants who completed medical school in 4 years had fewer research experiences (mean [SD] experiences, 13.9 [13.2]) than students with a master’s degree (18.5 [8.4]), doctorate (24.5 [17.5]), or dedicated research time (23.9 [14.9])(P<.001).

Utilizing US News & World Report rankings (2019 Best Medical Schools: Research), we determined that 146 applicants (24.0%) attended a top 25 medical school in 2019.2 Of those 146 applicants, 77 (52.7%) pursued additional training through dedicated research or a second professional degree. Only 107 of the 462 applicants (23.2%) from medical schools that were not in the top 25 as determined by the US News & World Report pursued additional training (P<.0001)(Figure).

Comparison of dermatology residency applicants based on the ranking of their medical school
Comparison of dermatology residency applicants based on the ranking of their medical school according to the US News & World Report 2019 rankings2 (N=608).

There is sentiment among applicants that a weaker dermatology residency application can be bolstered through a dedicated research year or a second professional degree. Whether this additional training has an impact on an applicant’s chances of matching is unclear and requires further investigation. Our data showed that applicants from the top 25 medical schools were more likely to pursue additional training than graduates at other institutions. These highly ranked academic institutions might encourage students to pursue a dual degree or research fellowship. In addition, year-long research opportunities might be more available through top medical schools; these schools might be more likely to offer dual-degree programs or provide funding to support student research opportunities.

 

 

It is important to comment on the potential importance of funding to support research years; the unpaid nature of many research fellowships in dermatology tends to favor applicants from a higher socioeconomic background. In that respect, the pervasive trend of encouraging research years in dermatology might widen already apparent disparities in our field, likely impacting underrepresented minorities disproportionately.3 Importantly, students with an MD degree represent nearly all applicants who completed a dual degree or dedicated research time. This might be due to fewer opportunities available to IMGs and DO students or secondary to incentivization by MD institutions.

Our data also suggest that students who pursue additional training have academic achievement metrics similar to those who do not. Additional training might increase medical students’ debt burden, thus catering to more affluent applicants, which, in turn, might have an impact on the diversity of the dermatology residency applicant pool.

Our data come from a single institution during a single application cycle, comprising 608 applicants. Nationwide, there were 701 dermatology residency applicants for the 2018-2019 application cycle; our pool therefore represents most (86.7%) but not all applicants.

We decided to use the US News & World Report 2019 rankings to identify top medical schools. Although this ranking system is imperfect and inherently subjective, it is widely utilized by prospective applicants and administrative faculty; we deemed it the best ranking that we could utilize to identify top medical schools. Because the University of Michigan Medical School was in the top 25 of Best Medical Schools: Research, according to the US News & World Report 2019 rankings, our applicant pool might be skewed to applicants interested in a more academic, research-focused residency program.

Our study revealed that 30% (n=184) of dermatology residency applicants pursued a second professional degree or dedicated research time. There was no difference in UMLE Step 1 and Step 2 scores for those who pursued additional training compared to those who did not.

References
  1. Charting outcomes in the match: U.S. allopathic seniors. 2nd ed. National Residency Matching Program. Published July 2020. Accessed January 3, 2022. https://www.nrmp.org/wp-content/uploads/2021/08/Charting-Outcomes-in-the-Match-2020_MD-Senior_final.pdf
  2. 2019 Best Medical Schools: Research. US News & World Report; 2019.
  3. Oussedik E. Important considerations for diversity in the selection of dermatology applicants. JAMA Dermatol. 2017;153:948-949. doi:10.1001/jamadermatol.2017.1814
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Drs. Runge and Jairath are from the University of Michigan Medical School, Ann Arbor. Drs. Renati and Helfrich are from the Department of Dermatology, Michigan Medicine, Ann Arbor.

The authors report no conflict of interest.

Correspondence: Yolanda Helfrich, MD, 1500 E Medical Center Dr, SPC 5314, Ann Arbor, MI 48109-5314 (yolanda@med.umich.edu).

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Drs. Runge and Jairath are from the University of Michigan Medical School, Ann Arbor. Drs. Renati and Helfrich are from the Department of Dermatology, Michigan Medicine, Ann Arbor.

The authors report no conflict of interest.

Correspondence: Yolanda Helfrich, MD, 1500 E Medical Center Dr, SPC 5314, Ann Arbor, MI 48109-5314 (yolanda@med.umich.edu).

Author and Disclosure Information

Drs. Runge and Jairath are from the University of Michigan Medical School, Ann Arbor. Drs. Renati and Helfrich are from the Department of Dermatology, Michigan Medicine, Ann Arbor.

The authors report no conflict of interest.

Correspondence: Yolanda Helfrich, MD, 1500 E Medical Center Dr, SPC 5314, Ann Arbor, MI 48109-5314 (yolanda@med.umich.edu).

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To the Editor:

Securing a dermatology residency position is extraordinarily competitive. The match rate for US allopathic seniors for dermatology is 84.7%, among the lowest of all medical specialties. Matched dermatology applicants boast a mean US Medical Licensing Examination (USMLE) Step 1 score of 248, the second highest of all specialties.1 To gain an edge, applicants are faced with decisions regarding pursuit of dedicated research time and additional professional degrees.

We conducted a cross-sectional study to determine how many dermatology residency applicants pursue additional years of training and how this decision relates to USMLE scores and other metrics. This study was approved by the University of Michigan institutional review board. Using Electronic Residency Application Service applicant data, all applicants to the University of Michigan Medical School (Ann Arbor, Michigan) dermatology residency program for the 2018-2019 application cycle were included.

Analysis of variance was performed to determine differences in mean USMLE Step 1 scores, Step 2 Clinical Knowledge scores, and number of research experiences (eg, presentations, publications) between groups. A 2-tailed z test of independent samples was performed for individual pairwise subgroup analyses.

There were 608 (377 female, 231 male; mean age, 27.9 years) applicants from 199 different medical schools; 550 graduated with an MD degree, 40 with a DO degree, and 18 were international medical graduates (IMGs)(eg, MBBS, MBBCh, BAO, MBChB). One hundred eighty-four applicants (30.2%) pursued either a second professional degree or a dedicated research period lasting at least 12 months. Twenty-eight applicants (4.6%) obtained a master’s degree, 21 (3.5%) obtained a doctorate, and 135 (22.2%) pursued dedicated research.

Of the 40 DO applicants, 1 (2.5%) pursued dedicated research time; 0 (zero) completed a dual degree. None (zero) of the 18 IMGs pursued a dual degree or dedicated research time. When the scores of applicants who pursued additional training and the scores of applicants who did not were compared, neither mean USMLE Step 1 scores nor mean USMLE Step 2 Clinical Knowledge scores were statistically different (P=.31 and P=.44, respectively). Applicants who completed medical school in 4 years had fewer research experiences (mean [SD] experiences, 13.9 [13.2]) than students with a master’s degree (18.5 [8.4]), doctorate (24.5 [17.5]), or dedicated research time (23.9 [14.9])(P<.001).

Utilizing US News & World Report rankings (2019 Best Medical Schools: Research), we determined that 146 applicants (24.0%) attended a top 25 medical school in 2019.2 Of those 146 applicants, 77 (52.7%) pursued additional training through dedicated research or a second professional degree. Only 107 of the 462 applicants (23.2%) from medical schools that were not in the top 25 as determined by the US News & World Report pursued additional training (P<.0001)(Figure).

Comparison of dermatology residency applicants based on the ranking of their medical school
Comparison of dermatology residency applicants based on the ranking of their medical school according to the US News & World Report 2019 rankings2 (N=608).

There is sentiment among applicants that a weaker dermatology residency application can be bolstered through a dedicated research year or a second professional degree. Whether this additional training has an impact on an applicant’s chances of matching is unclear and requires further investigation. Our data showed that applicants from the top 25 medical schools were more likely to pursue additional training than graduates at other institutions. These highly ranked academic institutions might encourage students to pursue a dual degree or research fellowship. In addition, year-long research opportunities might be more available through top medical schools; these schools might be more likely to offer dual-degree programs or provide funding to support student research opportunities.

 

 

It is important to comment on the potential importance of funding to support research years; the unpaid nature of many research fellowships in dermatology tends to favor applicants from a higher socioeconomic background. In that respect, the pervasive trend of encouraging research years in dermatology might widen already apparent disparities in our field, likely impacting underrepresented minorities disproportionately.3 Importantly, students with an MD degree represent nearly all applicants who completed a dual degree or dedicated research time. This might be due to fewer opportunities available to IMGs and DO students or secondary to incentivization by MD institutions.

Our data also suggest that students who pursue additional training have academic achievement metrics similar to those who do not. Additional training might increase medical students’ debt burden, thus catering to more affluent applicants, which, in turn, might have an impact on the diversity of the dermatology residency applicant pool.

Our data come from a single institution during a single application cycle, comprising 608 applicants. Nationwide, there were 701 dermatology residency applicants for the 2018-2019 application cycle; our pool therefore represents most (86.7%) but not all applicants.

We decided to use the US News & World Report 2019 rankings to identify top medical schools. Although this ranking system is imperfect and inherently subjective, it is widely utilized by prospective applicants and administrative faculty; we deemed it the best ranking that we could utilize to identify top medical schools. Because the University of Michigan Medical School was in the top 25 of Best Medical Schools: Research, according to the US News & World Report 2019 rankings, our applicant pool might be skewed to applicants interested in a more academic, research-focused residency program.

Our study revealed that 30% (n=184) of dermatology residency applicants pursued a second professional degree or dedicated research time. There was no difference in UMLE Step 1 and Step 2 scores for those who pursued additional training compared to those who did not.

To the Editor:

Securing a dermatology residency position is extraordinarily competitive. The match rate for US allopathic seniors for dermatology is 84.7%, among the lowest of all medical specialties. Matched dermatology applicants boast a mean US Medical Licensing Examination (USMLE) Step 1 score of 248, the second highest of all specialties.1 To gain an edge, applicants are faced with decisions regarding pursuit of dedicated research time and additional professional degrees.

We conducted a cross-sectional study to determine how many dermatology residency applicants pursue additional years of training and how this decision relates to USMLE scores and other metrics. This study was approved by the University of Michigan institutional review board. Using Electronic Residency Application Service applicant data, all applicants to the University of Michigan Medical School (Ann Arbor, Michigan) dermatology residency program for the 2018-2019 application cycle were included.

Analysis of variance was performed to determine differences in mean USMLE Step 1 scores, Step 2 Clinical Knowledge scores, and number of research experiences (eg, presentations, publications) between groups. A 2-tailed z test of independent samples was performed for individual pairwise subgroup analyses.

There were 608 (377 female, 231 male; mean age, 27.9 years) applicants from 199 different medical schools; 550 graduated with an MD degree, 40 with a DO degree, and 18 were international medical graduates (IMGs)(eg, MBBS, MBBCh, BAO, MBChB). One hundred eighty-four applicants (30.2%) pursued either a second professional degree or a dedicated research period lasting at least 12 months. Twenty-eight applicants (4.6%) obtained a master’s degree, 21 (3.5%) obtained a doctorate, and 135 (22.2%) pursued dedicated research.

Of the 40 DO applicants, 1 (2.5%) pursued dedicated research time; 0 (zero) completed a dual degree. None (zero) of the 18 IMGs pursued a dual degree or dedicated research time. When the scores of applicants who pursued additional training and the scores of applicants who did not were compared, neither mean USMLE Step 1 scores nor mean USMLE Step 2 Clinical Knowledge scores were statistically different (P=.31 and P=.44, respectively). Applicants who completed medical school in 4 years had fewer research experiences (mean [SD] experiences, 13.9 [13.2]) than students with a master’s degree (18.5 [8.4]), doctorate (24.5 [17.5]), or dedicated research time (23.9 [14.9])(P<.001).

Utilizing US News & World Report rankings (2019 Best Medical Schools: Research), we determined that 146 applicants (24.0%) attended a top 25 medical school in 2019.2 Of those 146 applicants, 77 (52.7%) pursued additional training through dedicated research or a second professional degree. Only 107 of the 462 applicants (23.2%) from medical schools that were not in the top 25 as determined by the US News & World Report pursued additional training (P<.0001)(Figure).

Comparison of dermatology residency applicants based on the ranking of their medical school
Comparison of dermatology residency applicants based on the ranking of their medical school according to the US News & World Report 2019 rankings2 (N=608).

There is sentiment among applicants that a weaker dermatology residency application can be bolstered through a dedicated research year or a second professional degree. Whether this additional training has an impact on an applicant’s chances of matching is unclear and requires further investigation. Our data showed that applicants from the top 25 medical schools were more likely to pursue additional training than graduates at other institutions. These highly ranked academic institutions might encourage students to pursue a dual degree or research fellowship. In addition, year-long research opportunities might be more available through top medical schools; these schools might be more likely to offer dual-degree programs or provide funding to support student research opportunities.

 

 

It is important to comment on the potential importance of funding to support research years; the unpaid nature of many research fellowships in dermatology tends to favor applicants from a higher socioeconomic background. In that respect, the pervasive trend of encouraging research years in dermatology might widen already apparent disparities in our field, likely impacting underrepresented minorities disproportionately.3 Importantly, students with an MD degree represent nearly all applicants who completed a dual degree or dedicated research time. This might be due to fewer opportunities available to IMGs and DO students or secondary to incentivization by MD institutions.

Our data also suggest that students who pursue additional training have academic achievement metrics similar to those who do not. Additional training might increase medical students’ debt burden, thus catering to more affluent applicants, which, in turn, might have an impact on the diversity of the dermatology residency applicant pool.

Our data come from a single institution during a single application cycle, comprising 608 applicants. Nationwide, there were 701 dermatology residency applicants for the 2018-2019 application cycle; our pool therefore represents most (86.7%) but not all applicants.

We decided to use the US News & World Report 2019 rankings to identify top medical schools. Although this ranking system is imperfect and inherently subjective, it is widely utilized by prospective applicants and administrative faculty; we deemed it the best ranking that we could utilize to identify top medical schools. Because the University of Michigan Medical School was in the top 25 of Best Medical Schools: Research, according to the US News & World Report 2019 rankings, our applicant pool might be skewed to applicants interested in a more academic, research-focused residency program.

Our study revealed that 30% (n=184) of dermatology residency applicants pursued a second professional degree or dedicated research time. There was no difference in UMLE Step 1 and Step 2 scores for those who pursued additional training compared to those who did not.

References
  1. Charting outcomes in the match: U.S. allopathic seniors. 2nd ed. National Residency Matching Program. Published July 2020. Accessed January 3, 2022. https://www.nrmp.org/wp-content/uploads/2021/08/Charting-Outcomes-in-the-Match-2020_MD-Senior_final.pdf
  2. 2019 Best Medical Schools: Research. US News & World Report; 2019.
  3. Oussedik E. Important considerations for diversity in the selection of dermatology applicants. JAMA Dermatol. 2017;153:948-949. doi:10.1001/jamadermatol.2017.1814
References
  1. Charting outcomes in the match: U.S. allopathic seniors. 2nd ed. National Residency Matching Program. Published July 2020. Accessed January 3, 2022. https://www.nrmp.org/wp-content/uploads/2021/08/Charting-Outcomes-in-the-Match-2020_MD-Senior_final.pdf
  2. 2019 Best Medical Schools: Research. US News & World Report; 2019.
  3. Oussedik E. Important considerations for diversity in the selection of dermatology applicants. JAMA Dermatol. 2017;153:948-949. doi:10.1001/jamadermatol.2017.1814
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  • In our study of dermatology residency applicants (N11=608), 30% pursued a second professional degree or dedicated research time.
  • US Medical Licensing Examination Step 1 and Step 2 scores did not differ among applicants who pursued additional training and those who did not.
  • Additional training might increase medical students’ debt burden, thus catering to more affluent applicants and reducing the diversity of applicant and resident pools.
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Febrile Ulceronecrotic Mucha-Habermann Disease: A Rare Form of Pityriasis Lichenoides et Varioliformis Acuta

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Febrile Ulceronecrotic Mucha-Habermann Disease: A Rare Form of Pityriasis Lichenoides et Varioliformis Acuta

To the Editor:

Pityriasis lichenoides is a papulosquamous dermatologic disorder that is characterized by recurrent papules.1 There is a spectrum of disease in pityriasis lichenoides that includes pityriasis lichenoides et varioliformis acuta (PLEVA) at one end and pityriasis lichenoides chronica at the other. Pityriasis lichenoides et varioliformis acuta is more common in younger individuals and is characterized by erythematous papules that often crust; these lesions resolve over weeks. The lesions of pityriasis lichenoides chronica are characteristically scaly, pink to red-brown papules that tend to resolve over months.1

Histologically, PLEVA exhibits parakeratosis, interface dermatitis, and a wedge-shaped infiltrate.1 Necrotic keratinocytes and extravasated erythrocytes also are common features. Additionally, monoclonal T cells may be present in the infiltrate.1

Febrile ulceronecrotic Mucha-Habermann disease (FUMHD) is a rare and severe variant of PLEVA. Febrile ulceronecrotic Mucha-Habermann disease is characterized by ulceronecrotic lesions, fever, and systemic symptoms.2 Herein, we present a case of FUMHD.

Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the extremities and trunk.
FIGURE 1. Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the extremities and trunk.

A 57-year-old man presented with an eruption of painful lesions involving the face, trunk, arms, legs, and genitalia of 1 month’s duration. The patient denied oral and ocular involvement. He had soreness and swelling of the arms and legs. A prior 12-day course of prednisone prescribed by a community dermatologist failed to improve the rash. A biopsy performed by a community dermatologist was nondiagnostic. The patient denied fever but did report chills. He had no preceding illness and was not taking new medications. On physical examination, the patient was afebrile and normotensive with innumerable deep-seated pustules and crusted ulcerations on the face, palms, soles, trunk, extremities, and penis (Figures 1 and 2). There was a background morbilliform eruption on the trunk. The ocular and oral mucosae were spared. The upper and lower extremities had pitting edema.

Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the right palm.
FIGURE 2. Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the right palm.

The patient’s alanine aminotransaminase and aspartate aminotransaminase levels were elevated at 55 and 51 U/L, respectively. His white blood cell count was within reference range; however, there was an elevated absolute neutrophil count (8.7×103/μL). No eosinophilia was noted. Laboratory evaluation showed a positive antimitochondrial antibody, and magnetic resonance imaging showed evidence of steatohepatitis. Punch biopsies from both the morbilliform eruption and a deep-seated pustule showed epidermal necrosis, parakeratosis, necrotic keratinocytes, and a lichenoid infiltrate of lymphocytes at the dermoepidermal interface. In the dermis, there was a wedge-shaped superficial and deep, perivascular infiltrate with extravasated erythrocytes (Figures 3 and 4). Tissue Gram stain was negative for bacteria. Varicella-zoster virus and herpes simplex virus immunostains were negative. Direct immunofluorescence showed colloid bodies, as can be seen in lichenoid dermatitis.

Histopathology showed a lichenoid infiltrate and a wedge-shaped lymphocytic perivascular infiltrate
FIGURE 3. Histopathology showed a lichenoid infiltrate and a wedge-shaped lymphocytic perivascular infiltrate (H&E, original magnification ×40).

At the next clinic visit, the patient reported a fever of 39.4 °C. After reviewing the patient’s histopathology and clinical picture, along with the presence of fever, a final diagnosis of FUMHD was made. The patient was started on an oral regimen of prednisone 80 mg once daily, minocycline 100 mg twice daily, and methotrexate 15 mg weekly. Unna boots (specialized compression wraps) with triamcinolone acetonide ointment 0.1% were placed weekly until the leg edema and ulcerations healed. He was maintained on methotrexate 15 mg weekly and 5 to 10 mg of prednisone once daily. The patient demonstrated residual scarring, with only rare new papulonodules that did not ulcerate when attempts were made to taper his medications. He was followed for nearly 3 years, with a recurrence of symptoms 2 years and 3 months after initial presentation to the academic dermatology clinic.

Histopathology showed extravasated erythrocytes and lymphocytes
FIGURE 4. Histopathology showed extravasated erythrocytes and lymphocytes (H&E, original magnification ×200).

Febrile ulceronecrotic Mucha-Habermann disease is a rare and severe variant of PLEVA that can present with the rapid appearance of necrotic skin lesions, fever, and systemic manifestations, including pulmonary, gastrointestinal, central nervous system, cardiac, hematologic, and rheumatologic symptoms.2-4 The evolution from PLEVA to FUMHD ranges from days to weeks, and patientsrarely can have an initial presentation of FUMHD.2 The duration of illness has been reported to be 1 to 24 months5; however, the length of illness still remains unclear, as many studies of FUMHD are case reports with limited follow-up. Our patient had a disease duration of at least 27 months. The lesions of FUMHD usually are generalized with flexural prominence, and mucosal involvement occurs in approximately one-quarter of cases. Hypertrophic scarring may be seen after the ulcerated lesions heal.2 The incidence of FUMHD is higher in men than in women, and it is more common in younger individuals.2,6 There have been reported fatalities associated with FUMHD, mostly in adults.2,4

 

 

The clinical differential diagnosis for PLEVA includes disseminated herpes zoster, varicella-zoster virus or coxsackievirus infections, lymphomatoid papulosis, angiodestructive lymphoma such as extranodal natural killer/T-cell lymphoma, drug eruption, arthropod bite, erythema multiforme, ecthyma, ecthyma gangrenosum, necrotic folliculitis, and cutaneous small vessel vasculitis. To differentiate between these diagnoses and PLEVA or FUMHD, it is important to take a strong clinical history. For example, for varicella-zoster virus and coxsackievirus infections, exposure history to the viruses and vaccination history for varicella-zoster virus can help elucidate the diagnosis.

Skin biopsy can help differentiate between these entities and PLEVA or FUMHD. The histopathology of a nonulcerated lesion of FUMHD shows parakeratosis, spongiosis, and lymphocyte exocytosis, as well as lymphocytic vasculitis—findings commonly seen in PLEVA. With the ulceronecrotic lesions of FUMHD, epidermal necrosis and ulceration can be seen microscopically.2 Although skin biopsy is not absolutely necessary for making the diagnosis of PLEVA, it can be helpful.3 However, given the dramatic and extreme clinical impression with an extensive differential diagnosis that includes disorders ranging from infectious to neoplastic, biopsy of FUMHD with clinicopathologic correlation often is required.

It is important to avoid biopsying ulcerated lesions of FUMHD, as the histopathologic findings are more likely to be nonspecific. Additionally, nonspecific features often are seen with immunohistochemistry; abnormal laboratory testing may be seen in FUMHD, but there is no specific test to diagnose FUMHD.2 Finally, a predominantly CD8+ cell infiltrate was seen in 4 of 6 cases of FUMHD, with 2 cases showing a mixed infiltrate of CD8+ and CD4+ cells.5,7-10

Although no unified diagnostic criterion exists for FUMHD, Nofal et al2 proposed criteria comprised of constant features, which are found in every case of FUMHD and can confirm the diagnosis alone, and variable features to help ensure that cases of FUMHD are not missed. The constant features include fever, acute onset of generalized ulceronecrotic papules and plaques, a course that is rapid and progressive (without a tendency for spontaneous resolution), and histopathology that is consistent with PLEVA. The variable features include history of PLEVA, involvement of mucous membranes, and systemic involvement.2

No single unifying treatment modality for all cases of FUMHD has been described. Immunosuppressive drugs (eg, systemic steroids, methotrexate), antibiotics, antivirals, phototherapy, intravenous immunoglobulin, and dapsone have been tried in patients with FUMHD.2 Combination therapy with an oral medication such as erythromycin or methotrexate and psoralen plus UVA may be effective for FUMHD.3 Additionally, some authors believe that patients with FUMHD should be treated similar to burn victims with intensive supportive care.2

 

 

The etiology of PLEVA is unknown, but it is presumed to be associated with an effector cytotoxic T-cell response to either an infectious agent or a drug.11Three studies have shown that most PLEVA cases (100% [3/3]; 65% [13/20]; and 57% [8/14]) demonstrate T-cell clonality,12-14 and some have suggested that PLEVA may be a T-cell lymphoproliferative disorder.12,13 Additionally, in a case report of 2 children with PLEVA who progressed to cutaneous T-cell lymphoma, the authors suggested that PLEVA may be related to nonaggressive cutaneous T-cell lymphoma.15 Of note, T-cell clonality, often found through the analysis of T-cell receptor gene rearrangement, is not an absolute criterion for determining malignancy, as some benign conditions may have clonality.16 However, in another study, clonality was found in only 1 of 10 cases of PLEVA, suggesting that PLEVA stems from an inflammatory reaction to infectious or other triggering agents.17

Four cases of FUMHD with monoclonality have been reported,4,7,8 and some researchers propose that FUMHD may be a subset of cutaneous T-cell lymphoma.7 However, 2 other cases of FUMHD did not show monoclonality of T cells,5,18 suggesting that FUMHD may represent an inflammatory disorder, rather than a lymphoproliferative process of T cells.18 Given the controversy surrounding the clonality of FUMHD, T-cell gene rearrangement studies were not performed in our case.

References
  1. Bolognia JL, Schaffer JV, Duncan KO, et al. Other papulosquamous disorders. In: Bolognia JL, Schaffer JV, Duncan KO, et al, eds. Dermatology Essentials. Elsevier Saunders; 2014:68-69.
  2. Nofal A, Assaf M, Alakad R, et al. Febrile ulceronecrotic Mucha-Habermann disease: proposed diagnostic criteria and therapeutic evaluation. Int J Dermatol. 2016;55:729-738.
  3. Milligan A, Johnston GA. Pityriasis lichenoides et varioliformis acuta. In: Lebwohl MG, Heymann WR, Berth-Jones J, et al, eds. Treatment of Skin Disease, Comprehensive Therapeutic Strategies. 4th ed. Saunders; 2013:580-582.
  4. Miyamoto T, Takayama N, Kitada S, et al. Febrile ulceronecrotic Mucha-Habermann disease: a case report and a review of the literature. J Clin Pathol. 2003;56:795-797.
  5. Meziane L, Caudron A, Dhaille F, et al. Febrile ulceronecrotic Mucha-Habermann disease: treatment with infliximab and intravenous immunoglobulins and review of the literature. Dermatology. 2012;225:344-348.
  6. Robinson AB, Stein LD. Miscellaneous conditions associated with arthritis. In: Kliegman RM, Stanton BF, St. Geme JW III, et al, eds. Nelson Textbook of Pediatrics. 19th ed. W.B. Saunders Company; 2011:880.
  7. Cozzio A, Hafner J, Kempf W, et al. Febrile ulceronecrotic Mucha-Habermann disease with clonality: a cutaneous T-cell lymphoma entity? J Am Acad Dermatol. 2004;51:1014-1017.
  8. Tsianakas A, Hoeger PH. Transition of pityriasis lichenoides et varioliformis acuta to febrile ulceronecrotic Mucha-Habermann disease is associated with elevated serum tumour necrosis factor-alpha. Br J Dermatol. 2005;152:794-799.
  9. Yanaba K, Ito M, Sasaki H, et al. A case of febrile ulceronecrotic Mucha-Habermann disease requiring debridement of necrotic skin and epidermal autograft. Br J Dermatol. 2002;147:1249-1253.
  10. Lode HN, Döring P, Lauenstein P, et al. Febrile ulceronecrotic Mucha-Habermann disease following suspected hemorrhagic chickenpox infection in a 20-month-old boy. Infection. 2015;43:583-588.
  11. Tomasini D, Tomasini CF, Cerri A, et al. Pityriasis lichenoides: a cytotoxic T-cell-mediated skin disorder: evidence of human parvovirus B19 DNA in nine cases. J Cutan Pathol. 2004;31:531-538.
  12. Weiss LM, Wood GS, Ellisen LW, et al. Clonal T-cell populations in pityriasis lichenoides et varioliformis acuta (Mucha-Habermann disease). Am J Pathol. 1987;126:417-421.
  13. Dereure O, Levi E, Kadin ME. T-cell clonality in pityriasis lichenoides et varioliformis acuta: a heteroduplex analysis of 20 cases. Arch Dermatol. 2000;136:1483-1486.
  14. Weinberg JM, Kristal L, Chooback L, et al. The clonal nature of pityriasis lichenoides. Arch Dermatol. 2002;138:1063-1067.
  15. Fortson JS, Schroeter AL, Esterly NB. Cutaneous T-cell lymphoma (parapsoriasis en plaque): an association with pityriasis lichenoides et varioliformis acuta in young children. Arch Dermatol. 1990;126:1449-1453.
  16. Bolognia JL, Schaffer JV, Duncan KO, et al. Cutaneous T-cell lymphoma. In: Bolognia JL, Schaffer JV, Duncan KO, et al, eds. Dermatology Essentials. Elsevier Saunders; 2014:958.
  17. Kim JE, Yun WJ, Mun SK, et al. Pityriasis lichenoides et varioliformis acuta and pityriasis lichenoides chronica: comparison of lesional T-cell subsets and investigation of viral associations. J Cutan Pathol. 2011;38:649-656.
  18. López-Estebaran´z JL, Vanaclocha F, Gil R, et al. Febrile ulceronecrotic Mucha-Habermann disease. J Am Acad Dermatol. 1993;29(5, pt 2):903-906.
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Dr. Zimmer is from Southeastern Skin Cancer and Dermatology, Huntsville, Alabama. Dr. Clay is from Dermatology Affiliates, Atlanta, Georgia.

Dr. Burkemper is from the Department of Dermatology, Saint Louis University School of Medicine, Missouri.

The authors report no conflict of interest.

Correspondence: Nicole M. Burkemper, MD, Department of Dermatology, Saint Louis University, 1402 S Grand Blvd, St. Louis, MO 63104 (nburkem2@slu.edu).

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Dr. Zimmer is from Southeastern Skin Cancer and Dermatology, Huntsville, Alabama. Dr. Clay is from Dermatology Affiliates, Atlanta, Georgia.

Dr. Burkemper is from the Department of Dermatology, Saint Louis University School of Medicine, Missouri.

The authors report no conflict of interest.

Correspondence: Nicole M. Burkemper, MD, Department of Dermatology, Saint Louis University, 1402 S Grand Blvd, St. Louis, MO 63104 (nburkem2@slu.edu).

Author and Disclosure Information

Dr. Zimmer is from Southeastern Skin Cancer and Dermatology, Huntsville, Alabama. Dr. Clay is from Dermatology Affiliates, Atlanta, Georgia.

Dr. Burkemper is from the Department of Dermatology, Saint Louis University School of Medicine, Missouri.

The authors report no conflict of interest.

Correspondence: Nicole M. Burkemper, MD, Department of Dermatology, Saint Louis University, 1402 S Grand Blvd, St. Louis, MO 63104 (nburkem2@slu.edu).

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To the Editor:

Pityriasis lichenoides is a papulosquamous dermatologic disorder that is characterized by recurrent papules.1 There is a spectrum of disease in pityriasis lichenoides that includes pityriasis lichenoides et varioliformis acuta (PLEVA) at one end and pityriasis lichenoides chronica at the other. Pityriasis lichenoides et varioliformis acuta is more common in younger individuals and is characterized by erythematous papules that often crust; these lesions resolve over weeks. The lesions of pityriasis lichenoides chronica are characteristically scaly, pink to red-brown papules that tend to resolve over months.1

Histologically, PLEVA exhibits parakeratosis, interface dermatitis, and a wedge-shaped infiltrate.1 Necrotic keratinocytes and extravasated erythrocytes also are common features. Additionally, monoclonal T cells may be present in the infiltrate.1

Febrile ulceronecrotic Mucha-Habermann disease (FUMHD) is a rare and severe variant of PLEVA. Febrile ulceronecrotic Mucha-Habermann disease is characterized by ulceronecrotic lesions, fever, and systemic symptoms.2 Herein, we present a case of FUMHD.

Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the extremities and trunk.
FIGURE 1. Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the extremities and trunk.

A 57-year-old man presented with an eruption of painful lesions involving the face, trunk, arms, legs, and genitalia of 1 month’s duration. The patient denied oral and ocular involvement. He had soreness and swelling of the arms and legs. A prior 12-day course of prednisone prescribed by a community dermatologist failed to improve the rash. A biopsy performed by a community dermatologist was nondiagnostic. The patient denied fever but did report chills. He had no preceding illness and was not taking new medications. On physical examination, the patient was afebrile and normotensive with innumerable deep-seated pustules and crusted ulcerations on the face, palms, soles, trunk, extremities, and penis (Figures 1 and 2). There was a background morbilliform eruption on the trunk. The ocular and oral mucosae were spared. The upper and lower extremities had pitting edema.

Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the right palm.
FIGURE 2. Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the right palm.

The patient’s alanine aminotransaminase and aspartate aminotransaminase levels were elevated at 55 and 51 U/L, respectively. His white blood cell count was within reference range; however, there was an elevated absolute neutrophil count (8.7×103/μL). No eosinophilia was noted. Laboratory evaluation showed a positive antimitochondrial antibody, and magnetic resonance imaging showed evidence of steatohepatitis. Punch biopsies from both the morbilliform eruption and a deep-seated pustule showed epidermal necrosis, parakeratosis, necrotic keratinocytes, and a lichenoid infiltrate of lymphocytes at the dermoepidermal interface. In the dermis, there was a wedge-shaped superficial and deep, perivascular infiltrate with extravasated erythrocytes (Figures 3 and 4). Tissue Gram stain was negative for bacteria. Varicella-zoster virus and herpes simplex virus immunostains were negative. Direct immunofluorescence showed colloid bodies, as can be seen in lichenoid dermatitis.

Histopathology showed a lichenoid infiltrate and a wedge-shaped lymphocytic perivascular infiltrate
FIGURE 3. Histopathology showed a lichenoid infiltrate and a wedge-shaped lymphocytic perivascular infiltrate (H&E, original magnification ×40).

At the next clinic visit, the patient reported a fever of 39.4 °C. After reviewing the patient’s histopathology and clinical picture, along with the presence of fever, a final diagnosis of FUMHD was made. The patient was started on an oral regimen of prednisone 80 mg once daily, minocycline 100 mg twice daily, and methotrexate 15 mg weekly. Unna boots (specialized compression wraps) with triamcinolone acetonide ointment 0.1% were placed weekly until the leg edema and ulcerations healed. He was maintained on methotrexate 15 mg weekly and 5 to 10 mg of prednisone once daily. The patient demonstrated residual scarring, with only rare new papulonodules that did not ulcerate when attempts were made to taper his medications. He was followed for nearly 3 years, with a recurrence of symptoms 2 years and 3 months after initial presentation to the academic dermatology clinic.

Histopathology showed extravasated erythrocytes and lymphocytes
FIGURE 4. Histopathology showed extravasated erythrocytes and lymphocytes (H&E, original magnification ×200).

Febrile ulceronecrotic Mucha-Habermann disease is a rare and severe variant of PLEVA that can present with the rapid appearance of necrotic skin lesions, fever, and systemic manifestations, including pulmonary, gastrointestinal, central nervous system, cardiac, hematologic, and rheumatologic symptoms.2-4 The evolution from PLEVA to FUMHD ranges from days to weeks, and patientsrarely can have an initial presentation of FUMHD.2 The duration of illness has been reported to be 1 to 24 months5; however, the length of illness still remains unclear, as many studies of FUMHD are case reports with limited follow-up. Our patient had a disease duration of at least 27 months. The lesions of FUMHD usually are generalized with flexural prominence, and mucosal involvement occurs in approximately one-quarter of cases. Hypertrophic scarring may be seen after the ulcerated lesions heal.2 The incidence of FUMHD is higher in men than in women, and it is more common in younger individuals.2,6 There have been reported fatalities associated with FUMHD, mostly in adults.2,4

 

 

The clinical differential diagnosis for PLEVA includes disseminated herpes zoster, varicella-zoster virus or coxsackievirus infections, lymphomatoid papulosis, angiodestructive lymphoma such as extranodal natural killer/T-cell lymphoma, drug eruption, arthropod bite, erythema multiforme, ecthyma, ecthyma gangrenosum, necrotic folliculitis, and cutaneous small vessel vasculitis. To differentiate between these diagnoses and PLEVA or FUMHD, it is important to take a strong clinical history. For example, for varicella-zoster virus and coxsackievirus infections, exposure history to the viruses and vaccination history for varicella-zoster virus can help elucidate the diagnosis.

Skin biopsy can help differentiate between these entities and PLEVA or FUMHD. The histopathology of a nonulcerated lesion of FUMHD shows parakeratosis, spongiosis, and lymphocyte exocytosis, as well as lymphocytic vasculitis—findings commonly seen in PLEVA. With the ulceronecrotic lesions of FUMHD, epidermal necrosis and ulceration can be seen microscopically.2 Although skin biopsy is not absolutely necessary for making the diagnosis of PLEVA, it can be helpful.3 However, given the dramatic and extreme clinical impression with an extensive differential diagnosis that includes disorders ranging from infectious to neoplastic, biopsy of FUMHD with clinicopathologic correlation often is required.

It is important to avoid biopsying ulcerated lesions of FUMHD, as the histopathologic findings are more likely to be nonspecific. Additionally, nonspecific features often are seen with immunohistochemistry; abnormal laboratory testing may be seen in FUMHD, but there is no specific test to diagnose FUMHD.2 Finally, a predominantly CD8+ cell infiltrate was seen in 4 of 6 cases of FUMHD, with 2 cases showing a mixed infiltrate of CD8+ and CD4+ cells.5,7-10

Although no unified diagnostic criterion exists for FUMHD, Nofal et al2 proposed criteria comprised of constant features, which are found in every case of FUMHD and can confirm the diagnosis alone, and variable features to help ensure that cases of FUMHD are not missed. The constant features include fever, acute onset of generalized ulceronecrotic papules and plaques, a course that is rapid and progressive (without a tendency for spontaneous resolution), and histopathology that is consistent with PLEVA. The variable features include history of PLEVA, involvement of mucous membranes, and systemic involvement.2

No single unifying treatment modality for all cases of FUMHD has been described. Immunosuppressive drugs (eg, systemic steroids, methotrexate), antibiotics, antivirals, phototherapy, intravenous immunoglobulin, and dapsone have been tried in patients with FUMHD.2 Combination therapy with an oral medication such as erythromycin or methotrexate and psoralen plus UVA may be effective for FUMHD.3 Additionally, some authors believe that patients with FUMHD should be treated similar to burn victims with intensive supportive care.2

 

 

The etiology of PLEVA is unknown, but it is presumed to be associated with an effector cytotoxic T-cell response to either an infectious agent or a drug.11Three studies have shown that most PLEVA cases (100% [3/3]; 65% [13/20]; and 57% [8/14]) demonstrate T-cell clonality,12-14 and some have suggested that PLEVA may be a T-cell lymphoproliferative disorder.12,13 Additionally, in a case report of 2 children with PLEVA who progressed to cutaneous T-cell lymphoma, the authors suggested that PLEVA may be related to nonaggressive cutaneous T-cell lymphoma.15 Of note, T-cell clonality, often found through the analysis of T-cell receptor gene rearrangement, is not an absolute criterion for determining malignancy, as some benign conditions may have clonality.16 However, in another study, clonality was found in only 1 of 10 cases of PLEVA, suggesting that PLEVA stems from an inflammatory reaction to infectious or other triggering agents.17

Four cases of FUMHD with monoclonality have been reported,4,7,8 and some researchers propose that FUMHD may be a subset of cutaneous T-cell lymphoma.7 However, 2 other cases of FUMHD did not show monoclonality of T cells,5,18 suggesting that FUMHD may represent an inflammatory disorder, rather than a lymphoproliferative process of T cells.18 Given the controversy surrounding the clonality of FUMHD, T-cell gene rearrangement studies were not performed in our case.

To the Editor:

Pityriasis lichenoides is a papulosquamous dermatologic disorder that is characterized by recurrent papules.1 There is a spectrum of disease in pityriasis lichenoides that includes pityriasis lichenoides et varioliformis acuta (PLEVA) at one end and pityriasis lichenoides chronica at the other. Pityriasis lichenoides et varioliformis acuta is more common in younger individuals and is characterized by erythematous papules that often crust; these lesions resolve over weeks. The lesions of pityriasis lichenoides chronica are characteristically scaly, pink to red-brown papules that tend to resolve over months.1

Histologically, PLEVA exhibits parakeratosis, interface dermatitis, and a wedge-shaped infiltrate.1 Necrotic keratinocytes and extravasated erythrocytes also are common features. Additionally, monoclonal T cells may be present in the infiltrate.1

Febrile ulceronecrotic Mucha-Habermann disease (FUMHD) is a rare and severe variant of PLEVA. Febrile ulceronecrotic Mucha-Habermann disease is characterized by ulceronecrotic lesions, fever, and systemic symptoms.2 Herein, we present a case of FUMHD.

Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the extremities and trunk.
FIGURE 1. Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the extremities and trunk.

A 57-year-old man presented with an eruption of painful lesions involving the face, trunk, arms, legs, and genitalia of 1 month’s duration. The patient denied oral and ocular involvement. He had soreness and swelling of the arms and legs. A prior 12-day course of prednisone prescribed by a community dermatologist failed to improve the rash. A biopsy performed by a community dermatologist was nondiagnostic. The patient denied fever but did report chills. He had no preceding illness and was not taking new medications. On physical examination, the patient was afebrile and normotensive with innumerable deep-seated pustules and crusted ulcerations on the face, palms, soles, trunk, extremities, and penis (Figures 1 and 2). There was a background morbilliform eruption on the trunk. The ocular and oral mucosae were spared. The upper and lower extremities had pitting edema.

Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the right palm.
FIGURE 2. Febrile ulceronecrotic Mucha-Habermann disease. Ulcerative and crusted violaceous papules on the right palm.

The patient’s alanine aminotransaminase and aspartate aminotransaminase levels were elevated at 55 and 51 U/L, respectively. His white blood cell count was within reference range; however, there was an elevated absolute neutrophil count (8.7×103/μL). No eosinophilia was noted. Laboratory evaluation showed a positive antimitochondrial antibody, and magnetic resonance imaging showed evidence of steatohepatitis. Punch biopsies from both the morbilliform eruption and a deep-seated pustule showed epidermal necrosis, parakeratosis, necrotic keratinocytes, and a lichenoid infiltrate of lymphocytes at the dermoepidermal interface. In the dermis, there was a wedge-shaped superficial and deep, perivascular infiltrate with extravasated erythrocytes (Figures 3 and 4). Tissue Gram stain was negative for bacteria. Varicella-zoster virus and herpes simplex virus immunostains were negative. Direct immunofluorescence showed colloid bodies, as can be seen in lichenoid dermatitis.

Histopathology showed a lichenoid infiltrate and a wedge-shaped lymphocytic perivascular infiltrate
FIGURE 3. Histopathology showed a lichenoid infiltrate and a wedge-shaped lymphocytic perivascular infiltrate (H&E, original magnification ×40).

At the next clinic visit, the patient reported a fever of 39.4 °C. After reviewing the patient’s histopathology and clinical picture, along with the presence of fever, a final diagnosis of FUMHD was made. The patient was started on an oral regimen of prednisone 80 mg once daily, minocycline 100 mg twice daily, and methotrexate 15 mg weekly. Unna boots (specialized compression wraps) with triamcinolone acetonide ointment 0.1% were placed weekly until the leg edema and ulcerations healed. He was maintained on methotrexate 15 mg weekly and 5 to 10 mg of prednisone once daily. The patient demonstrated residual scarring, with only rare new papulonodules that did not ulcerate when attempts were made to taper his medications. He was followed for nearly 3 years, with a recurrence of symptoms 2 years and 3 months after initial presentation to the academic dermatology clinic.

Histopathology showed extravasated erythrocytes and lymphocytes
FIGURE 4. Histopathology showed extravasated erythrocytes and lymphocytes (H&E, original magnification ×200).

Febrile ulceronecrotic Mucha-Habermann disease is a rare and severe variant of PLEVA that can present with the rapid appearance of necrotic skin lesions, fever, and systemic manifestations, including pulmonary, gastrointestinal, central nervous system, cardiac, hematologic, and rheumatologic symptoms.2-4 The evolution from PLEVA to FUMHD ranges from days to weeks, and patientsrarely can have an initial presentation of FUMHD.2 The duration of illness has been reported to be 1 to 24 months5; however, the length of illness still remains unclear, as many studies of FUMHD are case reports with limited follow-up. Our patient had a disease duration of at least 27 months. The lesions of FUMHD usually are generalized with flexural prominence, and mucosal involvement occurs in approximately one-quarter of cases. Hypertrophic scarring may be seen after the ulcerated lesions heal.2 The incidence of FUMHD is higher in men than in women, and it is more common in younger individuals.2,6 There have been reported fatalities associated with FUMHD, mostly in adults.2,4

 

 

The clinical differential diagnosis for PLEVA includes disseminated herpes zoster, varicella-zoster virus or coxsackievirus infections, lymphomatoid papulosis, angiodestructive lymphoma such as extranodal natural killer/T-cell lymphoma, drug eruption, arthropod bite, erythema multiforme, ecthyma, ecthyma gangrenosum, necrotic folliculitis, and cutaneous small vessel vasculitis. To differentiate between these diagnoses and PLEVA or FUMHD, it is important to take a strong clinical history. For example, for varicella-zoster virus and coxsackievirus infections, exposure history to the viruses and vaccination history for varicella-zoster virus can help elucidate the diagnosis.

Skin biopsy can help differentiate between these entities and PLEVA or FUMHD. The histopathology of a nonulcerated lesion of FUMHD shows parakeratosis, spongiosis, and lymphocyte exocytosis, as well as lymphocytic vasculitis—findings commonly seen in PLEVA. With the ulceronecrotic lesions of FUMHD, epidermal necrosis and ulceration can be seen microscopically.2 Although skin biopsy is not absolutely necessary for making the diagnosis of PLEVA, it can be helpful.3 However, given the dramatic and extreme clinical impression with an extensive differential diagnosis that includes disorders ranging from infectious to neoplastic, biopsy of FUMHD with clinicopathologic correlation often is required.

It is important to avoid biopsying ulcerated lesions of FUMHD, as the histopathologic findings are more likely to be nonspecific. Additionally, nonspecific features often are seen with immunohistochemistry; abnormal laboratory testing may be seen in FUMHD, but there is no specific test to diagnose FUMHD.2 Finally, a predominantly CD8+ cell infiltrate was seen in 4 of 6 cases of FUMHD, with 2 cases showing a mixed infiltrate of CD8+ and CD4+ cells.5,7-10

Although no unified diagnostic criterion exists for FUMHD, Nofal et al2 proposed criteria comprised of constant features, which are found in every case of FUMHD and can confirm the diagnosis alone, and variable features to help ensure that cases of FUMHD are not missed. The constant features include fever, acute onset of generalized ulceronecrotic papules and plaques, a course that is rapid and progressive (without a tendency for spontaneous resolution), and histopathology that is consistent with PLEVA. The variable features include history of PLEVA, involvement of mucous membranes, and systemic involvement.2

No single unifying treatment modality for all cases of FUMHD has been described. Immunosuppressive drugs (eg, systemic steroids, methotrexate), antibiotics, antivirals, phototherapy, intravenous immunoglobulin, and dapsone have been tried in patients with FUMHD.2 Combination therapy with an oral medication such as erythromycin or methotrexate and psoralen plus UVA may be effective for FUMHD.3 Additionally, some authors believe that patients with FUMHD should be treated similar to burn victims with intensive supportive care.2

 

 

The etiology of PLEVA is unknown, but it is presumed to be associated with an effector cytotoxic T-cell response to either an infectious agent or a drug.11Three studies have shown that most PLEVA cases (100% [3/3]; 65% [13/20]; and 57% [8/14]) demonstrate T-cell clonality,12-14 and some have suggested that PLEVA may be a T-cell lymphoproliferative disorder.12,13 Additionally, in a case report of 2 children with PLEVA who progressed to cutaneous T-cell lymphoma, the authors suggested that PLEVA may be related to nonaggressive cutaneous T-cell lymphoma.15 Of note, T-cell clonality, often found through the analysis of T-cell receptor gene rearrangement, is not an absolute criterion for determining malignancy, as some benign conditions may have clonality.16 However, in another study, clonality was found in only 1 of 10 cases of PLEVA, suggesting that PLEVA stems from an inflammatory reaction to infectious or other triggering agents.17

Four cases of FUMHD with monoclonality have been reported,4,7,8 and some researchers propose that FUMHD may be a subset of cutaneous T-cell lymphoma.7 However, 2 other cases of FUMHD did not show monoclonality of T cells,5,18 suggesting that FUMHD may represent an inflammatory disorder, rather than a lymphoproliferative process of T cells.18 Given the controversy surrounding the clonality of FUMHD, T-cell gene rearrangement studies were not performed in our case.

References
  1. Bolognia JL, Schaffer JV, Duncan KO, et al. Other papulosquamous disorders. In: Bolognia JL, Schaffer JV, Duncan KO, et al, eds. Dermatology Essentials. Elsevier Saunders; 2014:68-69.
  2. Nofal A, Assaf M, Alakad R, et al. Febrile ulceronecrotic Mucha-Habermann disease: proposed diagnostic criteria and therapeutic evaluation. Int J Dermatol. 2016;55:729-738.
  3. Milligan A, Johnston GA. Pityriasis lichenoides et varioliformis acuta. In: Lebwohl MG, Heymann WR, Berth-Jones J, et al, eds. Treatment of Skin Disease, Comprehensive Therapeutic Strategies. 4th ed. Saunders; 2013:580-582.
  4. Miyamoto T, Takayama N, Kitada S, et al. Febrile ulceronecrotic Mucha-Habermann disease: a case report and a review of the literature. J Clin Pathol. 2003;56:795-797.
  5. Meziane L, Caudron A, Dhaille F, et al. Febrile ulceronecrotic Mucha-Habermann disease: treatment with infliximab and intravenous immunoglobulins and review of the literature. Dermatology. 2012;225:344-348.
  6. Robinson AB, Stein LD. Miscellaneous conditions associated with arthritis. In: Kliegman RM, Stanton BF, St. Geme JW III, et al, eds. Nelson Textbook of Pediatrics. 19th ed. W.B. Saunders Company; 2011:880.
  7. Cozzio A, Hafner J, Kempf W, et al. Febrile ulceronecrotic Mucha-Habermann disease with clonality: a cutaneous T-cell lymphoma entity? J Am Acad Dermatol. 2004;51:1014-1017.
  8. Tsianakas A, Hoeger PH. Transition of pityriasis lichenoides et varioliformis acuta to febrile ulceronecrotic Mucha-Habermann disease is associated with elevated serum tumour necrosis factor-alpha. Br J Dermatol. 2005;152:794-799.
  9. Yanaba K, Ito M, Sasaki H, et al. A case of febrile ulceronecrotic Mucha-Habermann disease requiring debridement of necrotic skin and epidermal autograft. Br J Dermatol. 2002;147:1249-1253.
  10. Lode HN, Döring P, Lauenstein P, et al. Febrile ulceronecrotic Mucha-Habermann disease following suspected hemorrhagic chickenpox infection in a 20-month-old boy. Infection. 2015;43:583-588.
  11. Tomasini D, Tomasini CF, Cerri A, et al. Pityriasis lichenoides: a cytotoxic T-cell-mediated skin disorder: evidence of human parvovirus B19 DNA in nine cases. J Cutan Pathol. 2004;31:531-538.
  12. Weiss LM, Wood GS, Ellisen LW, et al. Clonal T-cell populations in pityriasis lichenoides et varioliformis acuta (Mucha-Habermann disease). Am J Pathol. 1987;126:417-421.
  13. Dereure O, Levi E, Kadin ME. T-cell clonality in pityriasis lichenoides et varioliformis acuta: a heteroduplex analysis of 20 cases. Arch Dermatol. 2000;136:1483-1486.
  14. Weinberg JM, Kristal L, Chooback L, et al. The clonal nature of pityriasis lichenoides. Arch Dermatol. 2002;138:1063-1067.
  15. Fortson JS, Schroeter AL, Esterly NB. Cutaneous T-cell lymphoma (parapsoriasis en plaque): an association with pityriasis lichenoides et varioliformis acuta in young children. Arch Dermatol. 1990;126:1449-1453.
  16. Bolognia JL, Schaffer JV, Duncan KO, et al. Cutaneous T-cell lymphoma. In: Bolognia JL, Schaffer JV, Duncan KO, et al, eds. Dermatology Essentials. Elsevier Saunders; 2014:958.
  17. Kim JE, Yun WJ, Mun SK, et al. Pityriasis lichenoides et varioliformis acuta and pityriasis lichenoides chronica: comparison of lesional T-cell subsets and investigation of viral associations. J Cutan Pathol. 2011;38:649-656.
  18. López-Estebaran´z JL, Vanaclocha F, Gil R, et al. Febrile ulceronecrotic Mucha-Habermann disease. J Am Acad Dermatol. 1993;29(5, pt 2):903-906.
References
  1. Bolognia JL, Schaffer JV, Duncan KO, et al. Other papulosquamous disorders. In: Bolognia JL, Schaffer JV, Duncan KO, et al, eds. Dermatology Essentials. Elsevier Saunders; 2014:68-69.
  2. Nofal A, Assaf M, Alakad R, et al. Febrile ulceronecrotic Mucha-Habermann disease: proposed diagnostic criteria and therapeutic evaluation. Int J Dermatol. 2016;55:729-738.
  3. Milligan A, Johnston GA. Pityriasis lichenoides et varioliformis acuta. In: Lebwohl MG, Heymann WR, Berth-Jones J, et al, eds. Treatment of Skin Disease, Comprehensive Therapeutic Strategies. 4th ed. Saunders; 2013:580-582.
  4. Miyamoto T, Takayama N, Kitada S, et al. Febrile ulceronecrotic Mucha-Habermann disease: a case report and a review of the literature. J Clin Pathol. 2003;56:795-797.
  5. Meziane L, Caudron A, Dhaille F, et al. Febrile ulceronecrotic Mucha-Habermann disease: treatment with infliximab and intravenous immunoglobulins and review of the literature. Dermatology. 2012;225:344-348.
  6. Robinson AB, Stein LD. Miscellaneous conditions associated with arthritis. In: Kliegman RM, Stanton BF, St. Geme JW III, et al, eds. Nelson Textbook of Pediatrics. 19th ed. W.B. Saunders Company; 2011:880.
  7. Cozzio A, Hafner J, Kempf W, et al. Febrile ulceronecrotic Mucha-Habermann disease with clonality: a cutaneous T-cell lymphoma entity? J Am Acad Dermatol. 2004;51:1014-1017.
  8. Tsianakas A, Hoeger PH. Transition of pityriasis lichenoides et varioliformis acuta to febrile ulceronecrotic Mucha-Habermann disease is associated with elevated serum tumour necrosis factor-alpha. Br J Dermatol. 2005;152:794-799.
  9. Yanaba K, Ito M, Sasaki H, et al. A case of febrile ulceronecrotic Mucha-Habermann disease requiring debridement of necrotic skin and epidermal autograft. Br J Dermatol. 2002;147:1249-1253.
  10. Lode HN, Döring P, Lauenstein P, et al. Febrile ulceronecrotic Mucha-Habermann disease following suspected hemorrhagic chickenpox infection in a 20-month-old boy. Infection. 2015;43:583-588.
  11. Tomasini D, Tomasini CF, Cerri A, et al. Pityriasis lichenoides: a cytotoxic T-cell-mediated skin disorder: evidence of human parvovirus B19 DNA in nine cases. J Cutan Pathol. 2004;31:531-538.
  12. Weiss LM, Wood GS, Ellisen LW, et al. Clonal T-cell populations in pityriasis lichenoides et varioliformis acuta (Mucha-Habermann disease). Am J Pathol. 1987;126:417-421.
  13. Dereure O, Levi E, Kadin ME. T-cell clonality in pityriasis lichenoides et varioliformis acuta: a heteroduplex analysis of 20 cases. Arch Dermatol. 2000;136:1483-1486.
  14. Weinberg JM, Kristal L, Chooback L, et al. The clonal nature of pityriasis lichenoides. Arch Dermatol. 2002;138:1063-1067.
  15. Fortson JS, Schroeter AL, Esterly NB. Cutaneous T-cell lymphoma (parapsoriasis en plaque): an association with pityriasis lichenoides et varioliformis acuta in young children. Arch Dermatol. 1990;126:1449-1453.
  16. Bolognia JL, Schaffer JV, Duncan KO, et al. Cutaneous T-cell lymphoma. In: Bolognia JL, Schaffer JV, Duncan KO, et al, eds. Dermatology Essentials. Elsevier Saunders; 2014:958.
  17. Kim JE, Yun WJ, Mun SK, et al. Pityriasis lichenoides et varioliformis acuta and pityriasis lichenoides chronica: comparison of lesional T-cell subsets and investigation of viral associations. J Cutan Pathol. 2011;38:649-656.
  18. López-Estebaran´z JL, Vanaclocha F, Gil R, et al. Febrile ulceronecrotic Mucha-Habermann disease. J Am Acad Dermatol. 1993;29(5, pt 2):903-906.
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  • Febrile ulceronecrotic Mucha-Habermann disease (FUMHD) is a rare variant of pityriasis lichenoides et varioliformis acuta, characterized by ulceronecrotic lesions, fever, and systemic symptoms.
  • A variety of treatments including immunosuppressive drugs (eg, systemic steroids, methotrexate), antibiotics, antivirals, phototherapy, intravenous immunoglobulin, and dapsone have been used in patients with FUMHD.
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Navigating the Evolving Landscape of the Dermatologic Workforce

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Navigating the Evolving Landscape of the Dermatologic Workforce

As of 2018, the mean dermatologist to population ratio in the United States was 1.10 per 100,000 people, highlighting a shortage of dermatologists that is only predicted to increase in coming years.1-4 This undersupply is fueled by both an increasing burden of dermatologic disease and population growth.4 Without readily available access to dermatologic care, many patients are left waiting for weeks to see a dermatologist, depending on geographic region.5-7 It is not simply patients who perceive wait times to be prolonged; approximately half of dermatologists surveyed by the American Academy of Dermatology (AAD) reported an undersupply of dermatologists in their communities, a finding that strongly correlated with patient wait times.2 Ensuring the dermatologic workforce is sufficient to fulfill patient needs requires innovation of current practice models. To address this unmet demand, many practices have begun incorporating physician extenders, a term that encompasses physicians not board certified in dermatology, physician assistants, and nurse practitioners.7 The evolving landscape of the dermatologic workforce raises questions about future practice models and patient outcomes.

Scope of Practice for Physician Extenders

In practice, the role of physician extenders is highly variable. Legislation involving the scope of practice for physician extenders constantly is changing and varies by state. As of November 2021, 24 states and the District of Columbia permit nurse practitioners “full practice” authority to triage patients, interpret diagnostic tests, and prescribe treatments without physician oversight, including controlled substances.8,9 Even in states with “reduced practice” and “restricted practice” paradigms, which necessitate physician oversight, there remains ambiguity. Across the country, state regulatory bodies differ in statues governing licensing requirements, accessibility of the supervising physician, and ultimately culpability in the case of patient harm. Lack of consensus guidelines that clearly define roles and responsibilities has kindled controversy regarding extent of autonomy and liability for adverse outcomes.10,11

With respect to procedures, the AAD has explicitly recommended that “only active and properly licensed doctors of medicine and osteopathy shall engage in the practice of medicine” but that “under appropriate circumstances, a physician may delegate certain procedures and services to appropriately trained nonphysician office personnel.”12 This statement does not refer to or explicitly list the procedures that are appropriate for delegation to nonphysician personnel, and there is wide variability in how this recommendation is applied in daily practice. As it was originally intended, the AAD’s “Ethics in Medical Practice” position statement indicated that dermatologists must directly oversee physician extenders, a responsibility that is defined as being “present on-site, immediately available and able to respond promptly” to issues arising during the provision of health care services.12

Adverse Events From Cosmetic Procedures

The American Society for Dermatologic Surgery has documented a steady growth in the demand for cosmetic, medical, and surgical services,13 a trend that has heralded an increase in the number of procedures performed by physician extenders.14,15 One study contrasted the risk for adverse events following minimally invasive cosmetic procedures performed by physicians or nonphysicians. Of 2116 patients surveyed, 50 adverse events were documented.14 The cohort treated by nonphysicians experienced a higher incidence of laser burns and dyspigmentation, and the use of improper technique was the most frequently implicated cause of developing an adverse event. Approximately 24.6% of American Society for Dermatologic Surgery members reported treating 10 or more complications of cosmetic procedures performed by nonphysicians.14 Beyond laser burns and dyspigmentation, this wide range of complications included inappropriately placed filler product, facial drooping, and scarring. These studies highlight the need for further investigation into the outcomes of procedures performed by physician extenders.

Training of Physician Extenders

Even with medical management, emphasis on proper training of personnel is key and remains a legitimate concern. The training of physician extenders in dermatology differs greatly by location; while some physician extenders operate under meticulous guidance and thus can expand their skill set, other physician extenders shadow dermatologists for an arbitrary amount of time before being thrust into practice.10 It would be a disservice to both patients and nonphysician providers alike to conflate the latter regimen with the 4 years of medical school, 1 year of internship, and 3 years of rigorous specialized dermatologic training that physicians undergo.

This stark discrepancy between the training of physicians and physician extenders raises difficult questions about the patient’s right to make an informed decision regarding how they receive health care. Indeed, the casually regulated autonomous practice of some nonphysician providers has ignited public shock and ire.11

Reducing Health Care Expenditures

As legislatures deliberate over expanding scope of practice, policies should be based on evidence that prioritizes patient safety. In the appropriate setting, physician extenders can be instrumental to mitigating health care disparities; the use of physician extenders can diminish wait times for patients with routine visits for stable dermatologic disease.16 Moreover, reducing health care expenditures often is cited as a major benefit of increased utilization of physician extenders.14 It stands to reason that compensation of nonphysician providers is less expensive for a practice compared with physicians. Physician extenders participating in the management of stable chronic conditions or mild acute conditions may be cost-efficient in these circumstances; however, evidence suggests that physician extenders may incur greater costs than physicians with respect to the utilization of diagnostic tests or prescribing medications. For example, several studies have documented a substantial difference in the number of biopsies needed per malignant neoplasm by physicians compared to physician extenders.17-19 Particularly in patients younger than 65 years and in patients without history of skin cancer, physician extenders had to perform a greater number of biopsies to diagnose malignant neoplasms vs physicians.18 In addition to increased utilization of diagnostic tests, nonphysician providers more frequently prescribe medications of varying classes.20-22 Whether in outpatient offices, emergency departments, or hospital clinics, physician extenders more frequently prescribe antibiotics, which has concerning implications for antibiotic stewardship.20,21 In states with independent prescription authority, physician extenders are more than 20 times more likely to overprescribeopioids compared to physician extenders in states requiring physician supervision.23 These findings warrant additional investigation into how prescription patterns vary by provider type and how these differences impact patient outcomes.

Final Thoughts

Improving patient care is inherently a team endeavor, and the contributions of all members of the health care team are critical to success. Engaging physician extenders may help mitigate disparities in dermatologic care, with respect to surveillance of stable chronic conditions or the diagnosis of mild acute diseases. However, the exact scope of practice of physician extenders remains ambiguous, and their training regimens can vary drastically. Therefore, in the interest of patient safety, new patients or medically complex patients (ie, cutaneous lymphomas, nonstable autoimmune connective tissue disease) should be examined and managed by physicians. In either scenario, the patient should be informed of which providers are available and should be integrated into the decision-making process for their care. Through mutual respect, close collaboration, and candid assessments of patient complexity, different parties within the medical team can unite behind the mission to improve patient outcomes and champion equitable access to health care.

References
  1. Vaidya T, Zubritsky L, Alikhan A, et al. Socioeconomic and geographic barriers to dermatology care in urban and rural US populations. J Am Acad Dermatol. 2018;78:406-408.
  2. Resneck J Jr, Kimball AB. The dermatology workforce shortage. J Am Acad Dermatol. 2004;50:50-54.
  3. American Medical Association. Physician Characteristics and Distribution in the US. American Medical Association; 2002.
  4. Kimball AB, Resneck JS Jr. The US dermatology workforce: a specialty remains in shortage. J Am Acad Dermatol. 2008;59:741-755.
  5. Tsang MW, Resneck JS Jr. Even patients with changing moles face long dermatology appointment wait-times: a study of simulated patient calls to dermatologists. J Am Acad Dermatol. 2006;55:54-58.
  6. Suneja T, Smith ED, Chen GJ, et al. Waiting times to see a dermatologist are perceived as too long by dermatologists: implications for the dermatology workforce. Arch Dermatol. 2001;137:1303-1307.
  7. Zurfley F Jr, Mostow EN. Association between the use of a physician extender and dermatology appointment wait times in Ohio. JAMA Dermatol. 2017;153:1323-1324.
  8. Bean M. NP practice authority by state. Becker’s Hospital Review website. Published April 8, 2021. Accessed December 4, 2021. https://www.beckershospitalreview.com/nursing/np-practice-authority-by-state.html
  9. States with full practice authority for nurse practitioners. Maryville University website. Accessed December 15, 2021. https://online.maryville.edu/nursing-degrees/np/resources/states-granting-np-full-practice-authority/
  10. Slade K, Lazenby M, Grant-Kels JM. Ethics of utilizing nurse practitioners and physician’s assistants in the dermatology setting. Clin Dermatol. 2012;30:516-521
  11. Hafner K, Palmer G. Skin cancers rise, along with questionable treatments. New York Times. November 20, 2017. Accessed December 4, 2021. https://www.nytimes.com/2017/11/20/health/dermatology-skin-cancer.html
  12. American Academy of Dermatology. Policy #P-61.500. the use of non-physician office personnel. Published February 22, 2002. Updated July 31, 2004. http://www.aad.org/Forms/Policies/Uploads/AR/COE%20-%20Ethics%20in%20Medical%20Practice%20Booklet.pdf
  13. 2016 ASDS Survey on Dermatologic Procedures. American Society for Dermatologic Surgery website. Published May 30, 2017. Accessed December 15, 2021. https://www.asds.net/skin-experts/news-room/press-releases/asds-survey-nearly-105-million-treatments-performed-in-2016
  14. Rossi AM, Wilson B, Hibler BP, et al. Nonphysician practice of cosmetic dermatology: a patient and physician perspective of outcomes and adverse events. Dermatol Surg. 2019;45:588-597. 
  15. Anderson AM, Matsumoto M, Saul MI, et al. Accuracy of skin cancer diagnosis by physician assistants compared with dermatologists in a large health care system. JAMA Dermatol. 2018;154:569-573.
  16. O’Brien JC, Chong BF. Reducing outpatient dermatology clinic wait times in a safety net health system in Dallas, Texas. J Am Acad Dermatol. 2016;75:631-632.
  17. Aldredge LM, Young MS. Providing guidance for patients with moderate-to-severe psoriasis who are candidates for biologic therapy: role of the nurse practitioner and physician assistant. J Dermatol Nurses Assoc. 2016;8:14-26.
  18. Roblin DW, Howard DH, Becker ER, et al. Use of midlevel practitioners to achieve labor cost savings in the primary care practice of an MCO. Health Serv Res. 2004;39:607-626.
  19. Nault A, Zhang C, Kim K, et al. Biopsy use in skin cancer diagnosis: comparing dermatology physicians and advanced practice professionals. JAMA Dermatol. 2015;151:899-902.
  20. Privalle A, Havighurst T, Kim K, et al. Number of skin biopsies needed per malignancy: comparing the use of skin biopsies among dermatologists and nondermatologist clinicians [published online August 10, 2019]. J Am Acad Dermatol. 2020;82:110-116.
  21. Roumie CL, Halasa NB, Edwards KM, et al. Differences in antibiotic prescribing among physicians, residents, and nonphysician clinicians. Am J Med. 2005;118:641-648.
  22. Sanchez GV, Hersh AL, Shapiro DJ, et al. Outpatient antibiotic prescribing among United States nurse practitioners and physician assistants [published online August 10, 2016]. Open Forum Infect Dis. 2016;3:ofw168.
  23. Lozada MJ, Raji MA, Goodwin JS, et al. Opioid prescribing by primary care providers: a cross-sectional analysis of nurse practitioner, physician assistant, and physician prescribing patterns [published online April 24, 2020]. J Gen Intern Med. 2020;35:2584-2592.
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From the Department of Dermatology, University of Miami/Jackson Memorial Hospital, Florida.

The author reports no conflict of interest.

Correspondence: Soraya Azzawi, MD (swazzawi@gmail.com).

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From the Department of Dermatology, University of Miami/Jackson Memorial Hospital, Florida.

The author reports no conflict of interest.

Correspondence: Soraya Azzawi, MD (swazzawi@gmail.com).

Author and Disclosure Information

From the Department of Dermatology, University of Miami/Jackson Memorial Hospital, Florida.

The author reports no conflict of interest.

Correspondence: Soraya Azzawi, MD (swazzawi@gmail.com).

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Article PDF

As of 2018, the mean dermatologist to population ratio in the United States was 1.10 per 100,000 people, highlighting a shortage of dermatologists that is only predicted to increase in coming years.1-4 This undersupply is fueled by both an increasing burden of dermatologic disease and population growth.4 Without readily available access to dermatologic care, many patients are left waiting for weeks to see a dermatologist, depending on geographic region.5-7 It is not simply patients who perceive wait times to be prolonged; approximately half of dermatologists surveyed by the American Academy of Dermatology (AAD) reported an undersupply of dermatologists in their communities, a finding that strongly correlated with patient wait times.2 Ensuring the dermatologic workforce is sufficient to fulfill patient needs requires innovation of current practice models. To address this unmet demand, many practices have begun incorporating physician extenders, a term that encompasses physicians not board certified in dermatology, physician assistants, and nurse practitioners.7 The evolving landscape of the dermatologic workforce raises questions about future practice models and patient outcomes.

Scope of Practice for Physician Extenders

In practice, the role of physician extenders is highly variable. Legislation involving the scope of practice for physician extenders constantly is changing and varies by state. As of November 2021, 24 states and the District of Columbia permit nurse practitioners “full practice” authority to triage patients, interpret diagnostic tests, and prescribe treatments without physician oversight, including controlled substances.8,9 Even in states with “reduced practice” and “restricted practice” paradigms, which necessitate physician oversight, there remains ambiguity. Across the country, state regulatory bodies differ in statues governing licensing requirements, accessibility of the supervising physician, and ultimately culpability in the case of patient harm. Lack of consensus guidelines that clearly define roles and responsibilities has kindled controversy regarding extent of autonomy and liability for adverse outcomes.10,11

With respect to procedures, the AAD has explicitly recommended that “only active and properly licensed doctors of medicine and osteopathy shall engage in the practice of medicine” but that “under appropriate circumstances, a physician may delegate certain procedures and services to appropriately trained nonphysician office personnel.”12 This statement does not refer to or explicitly list the procedures that are appropriate for delegation to nonphysician personnel, and there is wide variability in how this recommendation is applied in daily practice. As it was originally intended, the AAD’s “Ethics in Medical Practice” position statement indicated that dermatologists must directly oversee physician extenders, a responsibility that is defined as being “present on-site, immediately available and able to respond promptly” to issues arising during the provision of health care services.12

Adverse Events From Cosmetic Procedures

The American Society for Dermatologic Surgery has documented a steady growth in the demand for cosmetic, medical, and surgical services,13 a trend that has heralded an increase in the number of procedures performed by physician extenders.14,15 One study contrasted the risk for adverse events following minimally invasive cosmetic procedures performed by physicians or nonphysicians. Of 2116 patients surveyed, 50 adverse events were documented.14 The cohort treated by nonphysicians experienced a higher incidence of laser burns and dyspigmentation, and the use of improper technique was the most frequently implicated cause of developing an adverse event. Approximately 24.6% of American Society for Dermatologic Surgery members reported treating 10 or more complications of cosmetic procedures performed by nonphysicians.14 Beyond laser burns and dyspigmentation, this wide range of complications included inappropriately placed filler product, facial drooping, and scarring. These studies highlight the need for further investigation into the outcomes of procedures performed by physician extenders.

Training of Physician Extenders

Even with medical management, emphasis on proper training of personnel is key and remains a legitimate concern. The training of physician extenders in dermatology differs greatly by location; while some physician extenders operate under meticulous guidance and thus can expand their skill set, other physician extenders shadow dermatologists for an arbitrary amount of time before being thrust into practice.10 It would be a disservice to both patients and nonphysician providers alike to conflate the latter regimen with the 4 years of medical school, 1 year of internship, and 3 years of rigorous specialized dermatologic training that physicians undergo.

This stark discrepancy between the training of physicians and physician extenders raises difficult questions about the patient’s right to make an informed decision regarding how they receive health care. Indeed, the casually regulated autonomous practice of some nonphysician providers has ignited public shock and ire.11

Reducing Health Care Expenditures

As legislatures deliberate over expanding scope of practice, policies should be based on evidence that prioritizes patient safety. In the appropriate setting, physician extenders can be instrumental to mitigating health care disparities; the use of physician extenders can diminish wait times for patients with routine visits for stable dermatologic disease.16 Moreover, reducing health care expenditures often is cited as a major benefit of increased utilization of physician extenders.14 It stands to reason that compensation of nonphysician providers is less expensive for a practice compared with physicians. Physician extenders participating in the management of stable chronic conditions or mild acute conditions may be cost-efficient in these circumstances; however, evidence suggests that physician extenders may incur greater costs than physicians with respect to the utilization of diagnostic tests or prescribing medications. For example, several studies have documented a substantial difference in the number of biopsies needed per malignant neoplasm by physicians compared to physician extenders.17-19 Particularly in patients younger than 65 years and in patients without history of skin cancer, physician extenders had to perform a greater number of biopsies to diagnose malignant neoplasms vs physicians.18 In addition to increased utilization of diagnostic tests, nonphysician providers more frequently prescribe medications of varying classes.20-22 Whether in outpatient offices, emergency departments, or hospital clinics, physician extenders more frequently prescribe antibiotics, which has concerning implications for antibiotic stewardship.20,21 In states with independent prescription authority, physician extenders are more than 20 times more likely to overprescribeopioids compared to physician extenders in states requiring physician supervision.23 These findings warrant additional investigation into how prescription patterns vary by provider type and how these differences impact patient outcomes.

Final Thoughts

Improving patient care is inherently a team endeavor, and the contributions of all members of the health care team are critical to success. Engaging physician extenders may help mitigate disparities in dermatologic care, with respect to surveillance of stable chronic conditions or the diagnosis of mild acute diseases. However, the exact scope of practice of physician extenders remains ambiguous, and their training regimens can vary drastically. Therefore, in the interest of patient safety, new patients or medically complex patients (ie, cutaneous lymphomas, nonstable autoimmune connective tissue disease) should be examined and managed by physicians. In either scenario, the patient should be informed of which providers are available and should be integrated into the decision-making process for their care. Through mutual respect, close collaboration, and candid assessments of patient complexity, different parties within the medical team can unite behind the mission to improve patient outcomes and champion equitable access to health care.

As of 2018, the mean dermatologist to population ratio in the United States was 1.10 per 100,000 people, highlighting a shortage of dermatologists that is only predicted to increase in coming years.1-4 This undersupply is fueled by both an increasing burden of dermatologic disease and population growth.4 Without readily available access to dermatologic care, many patients are left waiting for weeks to see a dermatologist, depending on geographic region.5-7 It is not simply patients who perceive wait times to be prolonged; approximately half of dermatologists surveyed by the American Academy of Dermatology (AAD) reported an undersupply of dermatologists in their communities, a finding that strongly correlated with patient wait times.2 Ensuring the dermatologic workforce is sufficient to fulfill patient needs requires innovation of current practice models. To address this unmet demand, many practices have begun incorporating physician extenders, a term that encompasses physicians not board certified in dermatology, physician assistants, and nurse practitioners.7 The evolving landscape of the dermatologic workforce raises questions about future practice models and patient outcomes.

Scope of Practice for Physician Extenders

In practice, the role of physician extenders is highly variable. Legislation involving the scope of practice for physician extenders constantly is changing and varies by state. As of November 2021, 24 states and the District of Columbia permit nurse practitioners “full practice” authority to triage patients, interpret diagnostic tests, and prescribe treatments without physician oversight, including controlled substances.8,9 Even in states with “reduced practice” and “restricted practice” paradigms, which necessitate physician oversight, there remains ambiguity. Across the country, state regulatory bodies differ in statues governing licensing requirements, accessibility of the supervising physician, and ultimately culpability in the case of patient harm. Lack of consensus guidelines that clearly define roles and responsibilities has kindled controversy regarding extent of autonomy and liability for adverse outcomes.10,11

With respect to procedures, the AAD has explicitly recommended that “only active and properly licensed doctors of medicine and osteopathy shall engage in the practice of medicine” but that “under appropriate circumstances, a physician may delegate certain procedures and services to appropriately trained nonphysician office personnel.”12 This statement does not refer to or explicitly list the procedures that are appropriate for delegation to nonphysician personnel, and there is wide variability in how this recommendation is applied in daily practice. As it was originally intended, the AAD’s “Ethics in Medical Practice” position statement indicated that dermatologists must directly oversee physician extenders, a responsibility that is defined as being “present on-site, immediately available and able to respond promptly” to issues arising during the provision of health care services.12

Adverse Events From Cosmetic Procedures

The American Society for Dermatologic Surgery has documented a steady growth in the demand for cosmetic, medical, and surgical services,13 a trend that has heralded an increase in the number of procedures performed by physician extenders.14,15 One study contrasted the risk for adverse events following minimally invasive cosmetic procedures performed by physicians or nonphysicians. Of 2116 patients surveyed, 50 adverse events were documented.14 The cohort treated by nonphysicians experienced a higher incidence of laser burns and dyspigmentation, and the use of improper technique was the most frequently implicated cause of developing an adverse event. Approximately 24.6% of American Society for Dermatologic Surgery members reported treating 10 or more complications of cosmetic procedures performed by nonphysicians.14 Beyond laser burns and dyspigmentation, this wide range of complications included inappropriately placed filler product, facial drooping, and scarring. These studies highlight the need for further investigation into the outcomes of procedures performed by physician extenders.

Training of Physician Extenders

Even with medical management, emphasis on proper training of personnel is key and remains a legitimate concern. The training of physician extenders in dermatology differs greatly by location; while some physician extenders operate under meticulous guidance and thus can expand their skill set, other physician extenders shadow dermatologists for an arbitrary amount of time before being thrust into practice.10 It would be a disservice to both patients and nonphysician providers alike to conflate the latter regimen with the 4 years of medical school, 1 year of internship, and 3 years of rigorous specialized dermatologic training that physicians undergo.

This stark discrepancy between the training of physicians and physician extenders raises difficult questions about the patient’s right to make an informed decision regarding how they receive health care. Indeed, the casually regulated autonomous practice of some nonphysician providers has ignited public shock and ire.11

Reducing Health Care Expenditures

As legislatures deliberate over expanding scope of practice, policies should be based on evidence that prioritizes patient safety. In the appropriate setting, physician extenders can be instrumental to mitigating health care disparities; the use of physician extenders can diminish wait times for patients with routine visits for stable dermatologic disease.16 Moreover, reducing health care expenditures often is cited as a major benefit of increased utilization of physician extenders.14 It stands to reason that compensation of nonphysician providers is less expensive for a practice compared with physicians. Physician extenders participating in the management of stable chronic conditions or mild acute conditions may be cost-efficient in these circumstances; however, evidence suggests that physician extenders may incur greater costs than physicians with respect to the utilization of diagnostic tests or prescribing medications. For example, several studies have documented a substantial difference in the number of biopsies needed per malignant neoplasm by physicians compared to physician extenders.17-19 Particularly in patients younger than 65 years and in patients without history of skin cancer, physician extenders had to perform a greater number of biopsies to diagnose malignant neoplasms vs physicians.18 In addition to increased utilization of diagnostic tests, nonphysician providers more frequently prescribe medications of varying classes.20-22 Whether in outpatient offices, emergency departments, or hospital clinics, physician extenders more frequently prescribe antibiotics, which has concerning implications for antibiotic stewardship.20,21 In states with independent prescription authority, physician extenders are more than 20 times more likely to overprescribeopioids compared to physician extenders in states requiring physician supervision.23 These findings warrant additional investigation into how prescription patterns vary by provider type and how these differences impact patient outcomes.

Final Thoughts

Improving patient care is inherently a team endeavor, and the contributions of all members of the health care team are critical to success. Engaging physician extenders may help mitigate disparities in dermatologic care, with respect to surveillance of stable chronic conditions or the diagnosis of mild acute diseases. However, the exact scope of practice of physician extenders remains ambiguous, and their training regimens can vary drastically. Therefore, in the interest of patient safety, new patients or medically complex patients (ie, cutaneous lymphomas, nonstable autoimmune connective tissue disease) should be examined and managed by physicians. In either scenario, the patient should be informed of which providers are available and should be integrated into the decision-making process for their care. Through mutual respect, close collaboration, and candid assessments of patient complexity, different parties within the medical team can unite behind the mission to improve patient outcomes and champion equitable access to health care.

References
  1. Vaidya T, Zubritsky L, Alikhan A, et al. Socioeconomic and geographic barriers to dermatology care in urban and rural US populations. J Am Acad Dermatol. 2018;78:406-408.
  2. Resneck J Jr, Kimball AB. The dermatology workforce shortage. J Am Acad Dermatol. 2004;50:50-54.
  3. American Medical Association. Physician Characteristics and Distribution in the US. American Medical Association; 2002.
  4. Kimball AB, Resneck JS Jr. The US dermatology workforce: a specialty remains in shortage. J Am Acad Dermatol. 2008;59:741-755.
  5. Tsang MW, Resneck JS Jr. Even patients with changing moles face long dermatology appointment wait-times: a study of simulated patient calls to dermatologists. J Am Acad Dermatol. 2006;55:54-58.
  6. Suneja T, Smith ED, Chen GJ, et al. Waiting times to see a dermatologist are perceived as too long by dermatologists: implications for the dermatology workforce. Arch Dermatol. 2001;137:1303-1307.
  7. Zurfley F Jr, Mostow EN. Association between the use of a physician extender and dermatology appointment wait times in Ohio. JAMA Dermatol. 2017;153:1323-1324.
  8. Bean M. NP practice authority by state. Becker’s Hospital Review website. Published April 8, 2021. Accessed December 4, 2021. https://www.beckershospitalreview.com/nursing/np-practice-authority-by-state.html
  9. States with full practice authority for nurse practitioners. Maryville University website. Accessed December 15, 2021. https://online.maryville.edu/nursing-degrees/np/resources/states-granting-np-full-practice-authority/
  10. Slade K, Lazenby M, Grant-Kels JM. Ethics of utilizing nurse practitioners and physician’s assistants in the dermatology setting. Clin Dermatol. 2012;30:516-521
  11. Hafner K, Palmer G. Skin cancers rise, along with questionable treatments. New York Times. November 20, 2017. Accessed December 4, 2021. https://www.nytimes.com/2017/11/20/health/dermatology-skin-cancer.html
  12. American Academy of Dermatology. Policy #P-61.500. the use of non-physician office personnel. Published February 22, 2002. Updated July 31, 2004. http://www.aad.org/Forms/Policies/Uploads/AR/COE%20-%20Ethics%20in%20Medical%20Practice%20Booklet.pdf
  13. 2016 ASDS Survey on Dermatologic Procedures. American Society for Dermatologic Surgery website. Published May 30, 2017. Accessed December 15, 2021. https://www.asds.net/skin-experts/news-room/press-releases/asds-survey-nearly-105-million-treatments-performed-in-2016
  14. Rossi AM, Wilson B, Hibler BP, et al. Nonphysician practice of cosmetic dermatology: a patient and physician perspective of outcomes and adverse events. Dermatol Surg. 2019;45:588-597. 
  15. Anderson AM, Matsumoto M, Saul MI, et al. Accuracy of skin cancer diagnosis by physician assistants compared with dermatologists in a large health care system. JAMA Dermatol. 2018;154:569-573.
  16. O’Brien JC, Chong BF. Reducing outpatient dermatology clinic wait times in a safety net health system in Dallas, Texas. J Am Acad Dermatol. 2016;75:631-632.
  17. Aldredge LM, Young MS. Providing guidance for patients with moderate-to-severe psoriasis who are candidates for biologic therapy: role of the nurse practitioner and physician assistant. J Dermatol Nurses Assoc. 2016;8:14-26.
  18. Roblin DW, Howard DH, Becker ER, et al. Use of midlevel practitioners to achieve labor cost savings in the primary care practice of an MCO. Health Serv Res. 2004;39:607-626.
  19. Nault A, Zhang C, Kim K, et al. Biopsy use in skin cancer diagnosis: comparing dermatology physicians and advanced practice professionals. JAMA Dermatol. 2015;151:899-902.
  20. Privalle A, Havighurst T, Kim K, et al. Number of skin biopsies needed per malignancy: comparing the use of skin biopsies among dermatologists and nondermatologist clinicians [published online August 10, 2019]. J Am Acad Dermatol. 2020;82:110-116.
  21. Roumie CL, Halasa NB, Edwards KM, et al. Differences in antibiotic prescribing among physicians, residents, and nonphysician clinicians. Am J Med. 2005;118:641-648.
  22. Sanchez GV, Hersh AL, Shapiro DJ, et al. Outpatient antibiotic prescribing among United States nurse practitioners and physician assistants [published online August 10, 2016]. Open Forum Infect Dis. 2016;3:ofw168.
  23. Lozada MJ, Raji MA, Goodwin JS, et al. Opioid prescribing by primary care providers: a cross-sectional analysis of nurse practitioner, physician assistant, and physician prescribing patterns [published online April 24, 2020]. J Gen Intern Med. 2020;35:2584-2592.
References
  1. Vaidya T, Zubritsky L, Alikhan A, et al. Socioeconomic and geographic barriers to dermatology care in urban and rural US populations. J Am Acad Dermatol. 2018;78:406-408.
  2. Resneck J Jr, Kimball AB. The dermatology workforce shortage. J Am Acad Dermatol. 2004;50:50-54.
  3. American Medical Association. Physician Characteristics and Distribution in the US. American Medical Association; 2002.
  4. Kimball AB, Resneck JS Jr. The US dermatology workforce: a specialty remains in shortage. J Am Acad Dermatol. 2008;59:741-755.
  5. Tsang MW, Resneck JS Jr. Even patients with changing moles face long dermatology appointment wait-times: a study of simulated patient calls to dermatologists. J Am Acad Dermatol. 2006;55:54-58.
  6. Suneja T, Smith ED, Chen GJ, et al. Waiting times to see a dermatologist are perceived as too long by dermatologists: implications for the dermatology workforce. Arch Dermatol. 2001;137:1303-1307.
  7. Zurfley F Jr, Mostow EN. Association between the use of a physician extender and dermatology appointment wait times in Ohio. JAMA Dermatol. 2017;153:1323-1324.
  8. Bean M. NP practice authority by state. Becker’s Hospital Review website. Published April 8, 2021. Accessed December 4, 2021. https://www.beckershospitalreview.com/nursing/np-practice-authority-by-state.html
  9. States with full practice authority for nurse practitioners. Maryville University website. Accessed December 15, 2021. https://online.maryville.edu/nursing-degrees/np/resources/states-granting-np-full-practice-authority/
  10. Slade K, Lazenby M, Grant-Kels JM. Ethics of utilizing nurse practitioners and physician’s assistants in the dermatology setting. Clin Dermatol. 2012;30:516-521
  11. Hafner K, Palmer G. Skin cancers rise, along with questionable treatments. New York Times. November 20, 2017. Accessed December 4, 2021. https://www.nytimes.com/2017/11/20/health/dermatology-skin-cancer.html
  12. American Academy of Dermatology. Policy #P-61.500. the use of non-physician office personnel. Published February 22, 2002. Updated July 31, 2004. http://www.aad.org/Forms/Policies/Uploads/AR/COE%20-%20Ethics%20in%20Medical%20Practice%20Booklet.pdf
  13. 2016 ASDS Survey on Dermatologic Procedures. American Society for Dermatologic Surgery website. Published May 30, 2017. Accessed December 15, 2021. https://www.asds.net/skin-experts/news-room/press-releases/asds-survey-nearly-105-million-treatments-performed-in-2016
  14. Rossi AM, Wilson B, Hibler BP, et al. Nonphysician practice of cosmetic dermatology: a patient and physician perspective of outcomes and adverse events. Dermatol Surg. 2019;45:588-597. 
  15. Anderson AM, Matsumoto M, Saul MI, et al. Accuracy of skin cancer diagnosis by physician assistants compared with dermatologists in a large health care system. JAMA Dermatol. 2018;154:569-573.
  16. O’Brien JC, Chong BF. Reducing outpatient dermatology clinic wait times in a safety net health system in Dallas, Texas. J Am Acad Dermatol. 2016;75:631-632.
  17. Aldredge LM, Young MS. Providing guidance for patients with moderate-to-severe psoriasis who are candidates for biologic therapy: role of the nurse practitioner and physician assistant. J Dermatol Nurses Assoc. 2016;8:14-26.
  18. Roblin DW, Howard DH, Becker ER, et al. Use of midlevel practitioners to achieve labor cost savings in the primary care practice of an MCO. Health Serv Res. 2004;39:607-626.
  19. Nault A, Zhang C, Kim K, et al. Biopsy use in skin cancer diagnosis: comparing dermatology physicians and advanced practice professionals. JAMA Dermatol. 2015;151:899-902.
  20. Privalle A, Havighurst T, Kim K, et al. Number of skin biopsies needed per malignancy: comparing the use of skin biopsies among dermatologists and nondermatologist clinicians [published online August 10, 2019]. J Am Acad Dermatol. 2020;82:110-116.
  21. Roumie CL, Halasa NB, Edwards KM, et al. Differences in antibiotic prescribing among physicians, residents, and nonphysician clinicians. Am J Med. 2005;118:641-648.
  22. Sanchez GV, Hersh AL, Shapiro DJ, et al. Outpatient antibiotic prescribing among United States nurse practitioners and physician assistants [published online August 10, 2016]. Open Forum Infect Dis. 2016;3:ofw168.
  23. Lozada MJ, Raji MA, Goodwin JS, et al. Opioid prescribing by primary care providers: a cross-sectional analysis of nurse practitioner, physician assistant, and physician prescribing patterns [published online April 24, 2020]. J Gen Intern Med. 2020;35:2584-2592.
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Indurated Mass on the Right Central Back

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The Diagnosis: Actinomycetoma

Histopathology revealed evidence of an actinomycete organism within the suppuration, consistent with actinomycosis (quiz image [inset]). Given the clinical presentation and histopathologic findings, our patient was diagnosed with actinomycetoma.

Actinomycetoma is an indolent, progressive, subcutaneous infection characterized by a well-known clinical triad of tumefaction/subcutaneous mass, draining sinuses, and an exudate containing grains on microscopy. The sinus tracts are formed from the chronic infectious process that destroys tissue, creating tunnels. This infectious disease of soft tissue is a clinical subset of mycetoma, which is categorized as eumycetoma (fungal) and actinomycetoma (bacterial). Actinomycetoma resembles the behavior of insidious and chronic fungal infections; however, most mycetoma infections are bacterial.1,2 Actinomycetoma may be confused with actinomycosis, which is caused by Actinomycoses species, commensal organisms commonly located on the teeth and oral mucosa in association with other microorganisms that may pathogenically cause cervicofacial actinomycosis.3,4 Actinomycetoma can be caused by Nocardia, Streptomyces, and Actinomadura. 2,5 The foot is the most common location of involvement followed by the thoracic region. It is more common in tropical or equatorial locations and may be contracted through exposure to soil or wood.5 Mycetoma is considered a neglected tropical disease by the World Health Organization.1 In tropical countries, this disease may go undiagnosed or untreated for so long that surgical amputation may be the only effective treatment.

Actinomycetoma commonly is identifiable by direct microscopy, Gram stain, or bacterial culture, with Gram stain being more sensitive than bacterial culture.3 It is important to indicate the suspected organism to the microbiology laboratory because common bacterial pathogens are detected within 24 to 48 hours, but the causative microorganism in actinomycetoma may require up to 4 weeks for culture,2 leading to possible false negatives due to inadequate culture time.3 Histopathology of actinomycotic infections will demonstrate granulomatous inflammation, focal suppuration, and the presence of grains (ie, a colony of filamentous bacteria in a stellate shaped mass)(quiz image [inset]).

The gold standard of treatment is trimethoprim-sulfamethoxazole for up to several years.4,5 Amoxicillin–clavulanic acid, dapsone, amikacin, streptomycin, and beta-lactams have been used successfully.2,5 The treatment course is dependent on clinical severity and location of the disease. The cure rate with appropriate antibiotics can be as high as 90%,2,5 and thus surgical intervention can be avoided.

In the differential, cutaneous tuberculosis would show tuberculoid granulomas with epithelioid histiocytes with possible caseation on histopathology, typically alongside positive tuberculosis screening. Botryomycosis has a similar clinical presentation of a swollen or indurated lesion with draining sinus tracts, but it less commonly occurs on the trunk. Histopathology also is a close mimic of actinomycetoma with a small grain inside a suppurative infiltrate; however, it has no filamentous bacteria. A foreign body reaction would not histologically present with suppuration or grains, and draining sinuses typically would not be seen on clinical presentation. Sarcoma is a neoplastic process and most commonly would show a proliferation of cells with soft tissue or bone origin on histopathology and not primarily an inflammatory cell process.6

References
  1. Verma P, Jha A. Mycetoma: reviewing a neglected disease. Clin Exp Dermatol. 2019;44:123-129.
  2. Valour F, Sénéchal A, Dupieux C, et al. Actinomycosis: etiology, clinical features, diagnosis, treatment, and management. Infect Drug Resist. 2014;7:183-197.
  3. Bennhoff DF. Actinomycosis: diagnostic and therapeutic considerations and a review of 32 cases. Laryngoscope. 1984;94:1198-1217.
  4. Welsh O, Vera-Cabrera L, Welsh E, et al. Actinomycetoma and advances in its treatment. Clin Dermatol. 2012;30:372-381.
  5. Arenas R, Fernandez Martinez RF, Torres-Guerrero E, et al. Actinomycetoma: an update on diagnosis and treatment. Cutis. 2017;99:E11-E15.
  6. Weedon D. Weedon’s Skin Pathology. 3rd ed. Churchill Livingstone Elsevier; 2010.
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Drs. Hassani and Ros are from Hackensack Meridian Health, North Bergen, New Jersey. Dr. Chu is from Bridge Dermpath, Tarrytown, New York.

The authors report no conflict of interest.

Correspondence: Paul Chu, MD, 560 White Plains Rd, Tarrytown NY 10591 (paul.chu@bridgedermpath.com).

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Correspondence: Paul Chu, MD, 560 White Plains Rd, Tarrytown NY 10591 (paul.chu@bridgedermpath.com).

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Drs. Hassani and Ros are from Hackensack Meridian Health, North Bergen, New Jersey. Dr. Chu is from Bridge Dermpath, Tarrytown, New York.

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Correspondence: Paul Chu, MD, 560 White Plains Rd, Tarrytown NY 10591 (paul.chu@bridgedermpath.com).

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The Diagnosis: Actinomycetoma

Histopathology revealed evidence of an actinomycete organism within the suppuration, consistent with actinomycosis (quiz image [inset]). Given the clinical presentation and histopathologic findings, our patient was diagnosed with actinomycetoma.

Actinomycetoma is an indolent, progressive, subcutaneous infection characterized by a well-known clinical triad of tumefaction/subcutaneous mass, draining sinuses, and an exudate containing grains on microscopy. The sinus tracts are formed from the chronic infectious process that destroys tissue, creating tunnels. This infectious disease of soft tissue is a clinical subset of mycetoma, which is categorized as eumycetoma (fungal) and actinomycetoma (bacterial). Actinomycetoma resembles the behavior of insidious and chronic fungal infections; however, most mycetoma infections are bacterial.1,2 Actinomycetoma may be confused with actinomycosis, which is caused by Actinomycoses species, commensal organisms commonly located on the teeth and oral mucosa in association with other microorganisms that may pathogenically cause cervicofacial actinomycosis.3,4 Actinomycetoma can be caused by Nocardia, Streptomyces, and Actinomadura. 2,5 The foot is the most common location of involvement followed by the thoracic region. It is more common in tropical or equatorial locations and may be contracted through exposure to soil or wood.5 Mycetoma is considered a neglected tropical disease by the World Health Organization.1 In tropical countries, this disease may go undiagnosed or untreated for so long that surgical amputation may be the only effective treatment.

Actinomycetoma commonly is identifiable by direct microscopy, Gram stain, or bacterial culture, with Gram stain being more sensitive than bacterial culture.3 It is important to indicate the suspected organism to the microbiology laboratory because common bacterial pathogens are detected within 24 to 48 hours, but the causative microorganism in actinomycetoma may require up to 4 weeks for culture,2 leading to possible false negatives due to inadequate culture time.3 Histopathology of actinomycotic infections will demonstrate granulomatous inflammation, focal suppuration, and the presence of grains (ie, a colony of filamentous bacteria in a stellate shaped mass)(quiz image [inset]).

The gold standard of treatment is trimethoprim-sulfamethoxazole for up to several years.4,5 Amoxicillin–clavulanic acid, dapsone, amikacin, streptomycin, and beta-lactams have been used successfully.2,5 The treatment course is dependent on clinical severity and location of the disease. The cure rate with appropriate antibiotics can be as high as 90%,2,5 and thus surgical intervention can be avoided.

In the differential, cutaneous tuberculosis would show tuberculoid granulomas with epithelioid histiocytes with possible caseation on histopathology, typically alongside positive tuberculosis screening. Botryomycosis has a similar clinical presentation of a swollen or indurated lesion with draining sinus tracts, but it less commonly occurs on the trunk. Histopathology also is a close mimic of actinomycetoma with a small grain inside a suppurative infiltrate; however, it has no filamentous bacteria. A foreign body reaction would not histologically present with suppuration or grains, and draining sinuses typically would not be seen on clinical presentation. Sarcoma is a neoplastic process and most commonly would show a proliferation of cells with soft tissue or bone origin on histopathology and not primarily an inflammatory cell process.6

The Diagnosis: Actinomycetoma

Histopathology revealed evidence of an actinomycete organism within the suppuration, consistent with actinomycosis (quiz image [inset]). Given the clinical presentation and histopathologic findings, our patient was diagnosed with actinomycetoma.

Actinomycetoma is an indolent, progressive, subcutaneous infection characterized by a well-known clinical triad of tumefaction/subcutaneous mass, draining sinuses, and an exudate containing grains on microscopy. The sinus tracts are formed from the chronic infectious process that destroys tissue, creating tunnels. This infectious disease of soft tissue is a clinical subset of mycetoma, which is categorized as eumycetoma (fungal) and actinomycetoma (bacterial). Actinomycetoma resembles the behavior of insidious and chronic fungal infections; however, most mycetoma infections are bacterial.1,2 Actinomycetoma may be confused with actinomycosis, which is caused by Actinomycoses species, commensal organisms commonly located on the teeth and oral mucosa in association with other microorganisms that may pathogenically cause cervicofacial actinomycosis.3,4 Actinomycetoma can be caused by Nocardia, Streptomyces, and Actinomadura. 2,5 The foot is the most common location of involvement followed by the thoracic region. It is more common in tropical or equatorial locations and may be contracted through exposure to soil or wood.5 Mycetoma is considered a neglected tropical disease by the World Health Organization.1 In tropical countries, this disease may go undiagnosed or untreated for so long that surgical amputation may be the only effective treatment.

Actinomycetoma commonly is identifiable by direct microscopy, Gram stain, or bacterial culture, with Gram stain being more sensitive than bacterial culture.3 It is important to indicate the suspected organism to the microbiology laboratory because common bacterial pathogens are detected within 24 to 48 hours, but the causative microorganism in actinomycetoma may require up to 4 weeks for culture,2 leading to possible false negatives due to inadequate culture time.3 Histopathology of actinomycotic infections will demonstrate granulomatous inflammation, focal suppuration, and the presence of grains (ie, a colony of filamentous bacteria in a stellate shaped mass)(quiz image [inset]).

The gold standard of treatment is trimethoprim-sulfamethoxazole for up to several years.4,5 Amoxicillin–clavulanic acid, dapsone, amikacin, streptomycin, and beta-lactams have been used successfully.2,5 The treatment course is dependent on clinical severity and location of the disease. The cure rate with appropriate antibiotics can be as high as 90%,2,5 and thus surgical intervention can be avoided.

In the differential, cutaneous tuberculosis would show tuberculoid granulomas with epithelioid histiocytes with possible caseation on histopathology, typically alongside positive tuberculosis screening. Botryomycosis has a similar clinical presentation of a swollen or indurated lesion with draining sinus tracts, but it less commonly occurs on the trunk. Histopathology also is a close mimic of actinomycetoma with a small grain inside a suppurative infiltrate; however, it has no filamentous bacteria. A foreign body reaction would not histologically present with suppuration or grains, and draining sinuses typically would not be seen on clinical presentation. Sarcoma is a neoplastic process and most commonly would show a proliferation of cells with soft tissue or bone origin on histopathology and not primarily an inflammatory cell process.6

References
  1. Verma P, Jha A. Mycetoma: reviewing a neglected disease. Clin Exp Dermatol. 2019;44:123-129.
  2. Valour F, Sénéchal A, Dupieux C, et al. Actinomycosis: etiology, clinical features, diagnosis, treatment, and management. Infect Drug Resist. 2014;7:183-197.
  3. Bennhoff DF. Actinomycosis: diagnostic and therapeutic considerations and a review of 32 cases. Laryngoscope. 1984;94:1198-1217.
  4. Welsh O, Vera-Cabrera L, Welsh E, et al. Actinomycetoma and advances in its treatment. Clin Dermatol. 2012;30:372-381.
  5. Arenas R, Fernandez Martinez RF, Torres-Guerrero E, et al. Actinomycetoma: an update on diagnosis and treatment. Cutis. 2017;99:E11-E15.
  6. Weedon D. Weedon’s Skin Pathology. 3rd ed. Churchill Livingstone Elsevier; 2010.
References
  1. Verma P, Jha A. Mycetoma: reviewing a neglected disease. Clin Exp Dermatol. 2019;44:123-129.
  2. Valour F, Sénéchal A, Dupieux C, et al. Actinomycosis: etiology, clinical features, diagnosis, treatment, and management. Infect Drug Resist. 2014;7:183-197.
  3. Bennhoff DF. Actinomycosis: diagnostic and therapeutic considerations and a review of 32 cases. Laryngoscope. 1984;94:1198-1217.
  4. Welsh O, Vera-Cabrera L, Welsh E, et al. Actinomycetoma and advances in its treatment. Clin Dermatol. 2012;30:372-381.
  5. Arenas R, Fernandez Martinez RF, Torres-Guerrero E, et al. Actinomycetoma: an update on diagnosis and treatment. Cutis. 2017;99:E11-E15.
  6. Weedon D. Weedon’s Skin Pathology. 3rd ed. Churchill Livingstone Elsevier; 2010.
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Indurated Mass on the Right Central Back
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A 26-year-old Guatemalan man who was a former carpenter presented with an indurated, nontender, nonpruritic, subcutaneous mass on the right central back with multiple draining sinus tracts on the surface and several depressed circular atrophic scars on the periphery of the mass. He noticed that the lesion began as a pustule 1.5 years prior and gradually enlarged. He denied any trauma, insect bites, fever, chills, headaches, weight loss, or travel history (he relocated to the United States 3.5 years ago) prior to the skin eruption. A biopsy was performed by an outside dermatologist 1 year prior to the current presentation, with a diagnosis of Pityrosporum folliculitis. Throughout his clinical course, treatment with oral antifungals, oral doxycycline, and topical clindamycin all failed. The mass was removed by plastic surgery 1 year prior.

A tissue biopsy for histology and culture was obtained at presentation to our institution. Laboratory findings showed that the basic metabolic panel was within reference range. Chest radiography indicated no active disease. A tuberculosis screening was negative. A bacterial culture of the lesion identified no growth after 48 hours. Our tissue biopsy revealed fibrosing granulation tissue, but the surgical pathology from a prior mass excision revealed sinus tracts with suppuration, evidence of scarring, foreign body giant cell reaction, and a characteristic finding (inset: H&E, original magnification ×200).

Mass on the back

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