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Online Patient-Reported Reviews of Mohs Micrographic Surgery: Qualitative Analysis of Positive and Negative Experiences
Mohs micrographic surgery (MMS) remains the gold standard for the removal of skin cancers in high-risk areas of the body while offering an excellent safety profile and sparing tissue.1 In the current health care environment, online patient reviews have grown in popularity and influence. More than 60% of consumers consult social media before making health care decisions.2 A recent analysis of online patient reviews of general dermatology practices demonstrated the perceived importance of physician empathy, thoroughness, and cognizance of cost in relation to patient-reported satisfaction.3 Because MMS is a well-recognized and unique outpatient-based surgical procedure, a review and analysis of online patient reviews specific to MMS can provide useful practice insights.
Materials and Methods
This study was conducted using an online platform (RealSelf [http://www.realself.com]) that connects patients and providers offering aesthetically oriented procedures; the site has 35 million unique visitors yearly.4 The community’s directory was used to identify and analyze all cumulative patient reviews from 2006 to December 20, 2015, using the search terms Mohs surgery or Mohs micrographic surgery. The study was exempt by the Northwestern University (Chicago, Illinois) institutional review board.
A standardized qualitative coding methodology was created and applied to all available comments regarding MMS. A broad list of positive and negative patient experiences was first created and agreed upon by all 3 investigators. Each individual comment was then attributed to 1 or more of these positive or negative themes. Of these comments, 10% were coded by 2 investigators (S.X. and Z.A.) to ensure internal validity; 1 investigator coded the remaining statements by patients (Z.A.). Patient-reported satisfaction ratings categorized as “worth it” or “not worth it” (as used by RealSelf to describe the patient-perceived value and utility of a given procedure) as well as cost of MMS were gathered. Cumulative patient ratings were collected for the procedure overall, physician’s bedside manner, answered questions, aftercare follow-up, time spent with patients, telephone/email responsiveness, staff professionalism/courtesy, payment process, and wait times. Patient-reported characteristics of MMS also were evaluated including physician specialty, lesion location, type of skin cancer, and type of closure. For lesion location, we graded whether the location represented a high-risk area as defined by the American Academy of Dermatology, American College of Mohs Surgery, and American Society for Dermatologic Surgery.5
Results
A total of 219 reviews related to MMS were collected as of December 20, 2015. Overall, MMS was considered “worth it” by 89% of patients (Table 1). Only 2% of patients described MMS as “not worth it.” There was a wide range reported for the cost of the procedure ($1–$100,000 [median, $1800]). Of those patients who reported their sex, females were 2.5-times more likely to post a review compared to males (51% vs 20%); however, 30% of reviewers did not report their sex. The mean (standard deviation) overall satisfaction rating was 4.8 (0.8). With regard to category-specific ratings (eg, bedside manner, aftercare follow-up, time spent with patients), the mean scores were all 4.7 or greater (Table 2).
Regarding the surgical aspects of the procedure, the majority of patients reported that the excision of the lesion was performed by a dermatologist (62%). However, a notable portion of patients reported that the excision was performed by a plastic surgeon (21%). Physician specialty was not reported in 16% of the reviews. For the lesion closure, the patient-reported specialty of the physician was only slightly higher for dermatologists versus plastic surgeons (46% vs 44%)(Table 3).
The majority of patients who reported the location of the lesion treated with MMS identified a high-risk location (45%), a medium-risk location (18%), or an unspecified region of the face (15%), according to the appropriate-use criteria for MMS (Table 3).5 Patients did not specify the site of surgery 17% of the time. Only 5% of reported procedures were performed on low-risk areas.
Basal cell carcinomas were the most commonly reported lesions removed by MMS (38%), though 48% of reviews did not specify the type of tumor being treated (Table 3). A large majority (76%) did not specify the type of closure performed. When specified, secondary intention was used 10% of the time, followed by either a flap (6%) or skin graft (6%). Only 5% of patients reported an estimated size of the primary lesion in our study (data not shown).
The qualitative analysis demonstrated variance in themes for positive and negative characteristics (Table 4). Surgeon characteristics encompassed the 3 most commonly cited themes of positive remarks, including bedside manner (78%), communication skills (74%), and perceived expertise (58%). Specific to MMS, the tissue-sparing nature of the technique was cited by 14% of reviews as a positive theme. The most commonly cited themes of negative remarks were intraoperative and postoperative concerns, including postoperative disfigurement (16%), large scar (9%), healing time (9%), and procedural or postoperative pain (8%). A subtheme analysis of postoperative disfigurement revealed that eyelid or eyebrow distortion was the most common concern (29%), followed by redness and swelling (23%), an open wound (14%), and nostril/nose distortion (14%)(data not shown). Themes not commonly cited as either positive or negative included office environment, cost, and procedure time (data not shown).
Comment
The overall satisfaction with MMS (89%) was one of the highest for any procedure on this online patient review site, albeit based on fewer reviews compared to other common aesthetic surgical procedures. In comparison, 78% of 13,500 reviewers rated breast augmentation as “worth it,” while 60% of 6800 reviewers rated rhinoplasty as “worth it” (as of December 2015). Overall, the online patient reviews evaluated in this study were consistent with a previously published structured data report on patient satisfaction with MMS.6
The results show a greater than expected proportion of both the MMS excision and closure being performed by plastic surgeons compared to dermatologists. In reality, the majority of MMS excisions are performed by dermatologists. Based on a survey of American College of Mohs Surgery (ACMS) members, only 6% of procedures were sent to other specialties for closure.7 Our results may reflect reporting bias or patients misconstruing true MMS with an excision and standard frozen sections, techniques that have lower cure rates. If so, there may be a need to educate patients regarding the specifics of MMS. Other possible explanations for the discrepancy between the online patient reviews and ACMS data include misinterpretation by patients on the exact definition of MMS or that a higher than expected number of procedures were performed by non-ACMS Mohs surgeons.
Our qualitative analysis revealed that patients most frequently commented on the interpersonal skills of their surgeons (eg, bedside manner, communication) as positive themes during MMS, similar to prior analyses of general dermatology practices.3 In comparison to a recent study assessing patient satisfaction with rhinoplasty on RealSelf, the final appearance of the nose represented the most common positive- and negative-cited theme.8 Mohs micrographic surgery procedures typically are done under local anesthesia, which may explain the greater importance of bedside manner and communication intraoperatively in comparison to final surgical outcomes for patient satisfaction. For negative themes, 3 of 4 most common concerns were directly related to the intraoperative and postoperative periods. Providers may be able to improve patient satisfaction by explaining the postoperative course, such as healing time and temporary physical restrictions, as well as possible sequelae in greater detail, which may be particularly pertinent for MMS involving the nose or near the eyes.
The global ratings for MMS are high, as shown in our data set of patient reviews; however, patient reviews are highly susceptible to reporting bias, recall bias, and missing information. Prior work using this online patient review website to investigate laser and light procedures also demonstrated the risk for imperfect information associated with patient reviews.9 Even so, the data does provide a glimpse into what is considered important to patients. Surgeon interpersonal skills and communication were the most frequently cited positive themes for MMS. The best surgical aspects of MMS focused on the unique tissue-sparing nature of the procedure and the removal of a cancerous lesion. Potential areas for improvement include a more thorough explanation of the intraoperative and postoperative process, specifically potential asymmetry related to the nose or the eyes, healing time, and scarring. These patient reviews underscore the importance of setting appropriate patient expectations. As patients become more connected and utilize online platforms to report their experiences, Mohs surgeons can take insights derived from online patient reviews for their own practice or geographic area to improve satisfaction and manage expectations.
- Alam M, Ibrahim O, Nodzenski M, et al. Adverse events associated with Mohs micrographic surgery: multicenter prospective cohort study of 20,821 cases at 23 centers. JAMA Dermatol. 2013;149:1378-1385.
- Fox S. The social life of health information. Pew Research Center website. http://www.pewresearch.org/fact-tank/2014/01/15/the-social-life-of-health-information/. Published January 15, 2014. Accessed February 11, 2017.
- Smith RJ, Lipoff JB. Evaluation of dermatology practice online reviews: lessons from qualitative analysis. JAMA Dermatol. 2016;152:153-157.
- Schlichte MJ, Karimkhani C, Jones T, et al. Patient use of social media to evaluate cosmetic treatments and procedures. Dermatol Online J. 2015;21. pii:13030/qt88z6r65x.
- American Academy of Dermatology; American College of Mohs Surgery; American Society for Dermatologic Surgery Association; American Society for Mohs Surgery; Ad Hoc Task Force, Connolly SM, Baker DR, Coldiron BM, et al. AAD/ACMS/ASDSA/ASMS 2012 appropriate use criteria for Mohs micrographic surgery: a report of the American Academy of Dermatology, American College of Mohs Surgery, American Society for Dermatologic Surgery Association, and the American Society for Mohs Surgery [published online September 7, 2012]. Dermatol Surg. 2012;38:1582-1603.
- Asgari MM, Bertenthal D, Sen S, et al. Patient satisfaction after treatment of nonmelanoma skin cancer. Derm Surg. 2009;35:1041-1049.
- Campbell RM, Perlis CS, Malik MK, et al. Characteristics of Mohs practices in the United States: a recall survey of ACMS surgeons. Dermatol Surg. 2007;33:1413-1418; discussion, 1418.
- Khansa I, Khansa L, Pearson GD. Patient satisfaction after rhinoplasty: a social media analysis. Aesthet Surg J. 2016;36:NP1-5.
- Xu S, Walter J, Bhatia A. Patient-reported online satisfaction for laser and light procedures: need for caution. Dermatol Surg. 2017;43:154-158.
Mohs micrographic surgery (MMS) remains the gold standard for the removal of skin cancers in high-risk areas of the body while offering an excellent safety profile and sparing tissue.1 In the current health care environment, online patient reviews have grown in popularity and influence. More than 60% of consumers consult social media before making health care decisions.2 A recent analysis of online patient reviews of general dermatology practices demonstrated the perceived importance of physician empathy, thoroughness, and cognizance of cost in relation to patient-reported satisfaction.3 Because MMS is a well-recognized and unique outpatient-based surgical procedure, a review and analysis of online patient reviews specific to MMS can provide useful practice insights.
Materials and Methods
This study was conducted using an online platform (RealSelf [http://www.realself.com]) that connects patients and providers offering aesthetically oriented procedures; the site has 35 million unique visitors yearly.4 The community’s directory was used to identify and analyze all cumulative patient reviews from 2006 to December 20, 2015, using the search terms Mohs surgery or Mohs micrographic surgery. The study was exempt by the Northwestern University (Chicago, Illinois) institutional review board.
A standardized qualitative coding methodology was created and applied to all available comments regarding MMS. A broad list of positive and negative patient experiences was first created and agreed upon by all 3 investigators. Each individual comment was then attributed to 1 or more of these positive or negative themes. Of these comments, 10% were coded by 2 investigators (S.X. and Z.A.) to ensure internal validity; 1 investigator coded the remaining statements by patients (Z.A.). Patient-reported satisfaction ratings categorized as “worth it” or “not worth it” (as used by RealSelf to describe the patient-perceived value and utility of a given procedure) as well as cost of MMS were gathered. Cumulative patient ratings were collected for the procedure overall, physician’s bedside manner, answered questions, aftercare follow-up, time spent with patients, telephone/email responsiveness, staff professionalism/courtesy, payment process, and wait times. Patient-reported characteristics of MMS also were evaluated including physician specialty, lesion location, type of skin cancer, and type of closure. For lesion location, we graded whether the location represented a high-risk area as defined by the American Academy of Dermatology, American College of Mohs Surgery, and American Society for Dermatologic Surgery.5
Results
A total of 219 reviews related to MMS were collected as of December 20, 2015. Overall, MMS was considered “worth it” by 89% of patients (Table 1). Only 2% of patients described MMS as “not worth it.” There was a wide range reported for the cost of the procedure ($1–$100,000 [median, $1800]). Of those patients who reported their sex, females were 2.5-times more likely to post a review compared to males (51% vs 20%); however, 30% of reviewers did not report their sex. The mean (standard deviation) overall satisfaction rating was 4.8 (0.8). With regard to category-specific ratings (eg, bedside manner, aftercare follow-up, time spent with patients), the mean scores were all 4.7 or greater (Table 2).
Regarding the surgical aspects of the procedure, the majority of patients reported that the excision of the lesion was performed by a dermatologist (62%). However, a notable portion of patients reported that the excision was performed by a plastic surgeon (21%). Physician specialty was not reported in 16% of the reviews. For the lesion closure, the patient-reported specialty of the physician was only slightly higher for dermatologists versus plastic surgeons (46% vs 44%)(Table 3).
The majority of patients who reported the location of the lesion treated with MMS identified a high-risk location (45%), a medium-risk location (18%), or an unspecified region of the face (15%), according to the appropriate-use criteria for MMS (Table 3).5 Patients did not specify the site of surgery 17% of the time. Only 5% of reported procedures were performed on low-risk areas.
Basal cell carcinomas were the most commonly reported lesions removed by MMS (38%), though 48% of reviews did not specify the type of tumor being treated (Table 3). A large majority (76%) did not specify the type of closure performed. When specified, secondary intention was used 10% of the time, followed by either a flap (6%) or skin graft (6%). Only 5% of patients reported an estimated size of the primary lesion in our study (data not shown).
The qualitative analysis demonstrated variance in themes for positive and negative characteristics (Table 4). Surgeon characteristics encompassed the 3 most commonly cited themes of positive remarks, including bedside manner (78%), communication skills (74%), and perceived expertise (58%). Specific to MMS, the tissue-sparing nature of the technique was cited by 14% of reviews as a positive theme. The most commonly cited themes of negative remarks were intraoperative and postoperative concerns, including postoperative disfigurement (16%), large scar (9%), healing time (9%), and procedural or postoperative pain (8%). A subtheme analysis of postoperative disfigurement revealed that eyelid or eyebrow distortion was the most common concern (29%), followed by redness and swelling (23%), an open wound (14%), and nostril/nose distortion (14%)(data not shown). Themes not commonly cited as either positive or negative included office environment, cost, and procedure time (data not shown).
Comment
The overall satisfaction with MMS (89%) was one of the highest for any procedure on this online patient review site, albeit based on fewer reviews compared to other common aesthetic surgical procedures. In comparison, 78% of 13,500 reviewers rated breast augmentation as “worth it,” while 60% of 6800 reviewers rated rhinoplasty as “worth it” (as of December 2015). Overall, the online patient reviews evaluated in this study were consistent with a previously published structured data report on patient satisfaction with MMS.6
The results show a greater than expected proportion of both the MMS excision and closure being performed by plastic surgeons compared to dermatologists. In reality, the majority of MMS excisions are performed by dermatologists. Based on a survey of American College of Mohs Surgery (ACMS) members, only 6% of procedures were sent to other specialties for closure.7 Our results may reflect reporting bias or patients misconstruing true MMS with an excision and standard frozen sections, techniques that have lower cure rates. If so, there may be a need to educate patients regarding the specifics of MMS. Other possible explanations for the discrepancy between the online patient reviews and ACMS data include misinterpretation by patients on the exact definition of MMS or that a higher than expected number of procedures were performed by non-ACMS Mohs surgeons.
Our qualitative analysis revealed that patients most frequently commented on the interpersonal skills of their surgeons (eg, bedside manner, communication) as positive themes during MMS, similar to prior analyses of general dermatology practices.3 In comparison to a recent study assessing patient satisfaction with rhinoplasty on RealSelf, the final appearance of the nose represented the most common positive- and negative-cited theme.8 Mohs micrographic surgery procedures typically are done under local anesthesia, which may explain the greater importance of bedside manner and communication intraoperatively in comparison to final surgical outcomes for patient satisfaction. For negative themes, 3 of 4 most common concerns were directly related to the intraoperative and postoperative periods. Providers may be able to improve patient satisfaction by explaining the postoperative course, such as healing time and temporary physical restrictions, as well as possible sequelae in greater detail, which may be particularly pertinent for MMS involving the nose or near the eyes.
The global ratings for MMS are high, as shown in our data set of patient reviews; however, patient reviews are highly susceptible to reporting bias, recall bias, and missing information. Prior work using this online patient review website to investigate laser and light procedures also demonstrated the risk for imperfect information associated with patient reviews.9 Even so, the data does provide a glimpse into what is considered important to patients. Surgeon interpersonal skills and communication were the most frequently cited positive themes for MMS. The best surgical aspects of MMS focused on the unique tissue-sparing nature of the procedure and the removal of a cancerous lesion. Potential areas for improvement include a more thorough explanation of the intraoperative and postoperative process, specifically potential asymmetry related to the nose or the eyes, healing time, and scarring. These patient reviews underscore the importance of setting appropriate patient expectations. As patients become more connected and utilize online platforms to report their experiences, Mohs surgeons can take insights derived from online patient reviews for their own practice or geographic area to improve satisfaction and manage expectations.
Mohs micrographic surgery (MMS) remains the gold standard for the removal of skin cancers in high-risk areas of the body while offering an excellent safety profile and sparing tissue.1 In the current health care environment, online patient reviews have grown in popularity and influence. More than 60% of consumers consult social media before making health care decisions.2 A recent analysis of online patient reviews of general dermatology practices demonstrated the perceived importance of physician empathy, thoroughness, and cognizance of cost in relation to patient-reported satisfaction.3 Because MMS is a well-recognized and unique outpatient-based surgical procedure, a review and analysis of online patient reviews specific to MMS can provide useful practice insights.
Materials and Methods
This study was conducted using an online platform (RealSelf [http://www.realself.com]) that connects patients and providers offering aesthetically oriented procedures; the site has 35 million unique visitors yearly.4 The community’s directory was used to identify and analyze all cumulative patient reviews from 2006 to December 20, 2015, using the search terms Mohs surgery or Mohs micrographic surgery. The study was exempt by the Northwestern University (Chicago, Illinois) institutional review board.
A standardized qualitative coding methodology was created and applied to all available comments regarding MMS. A broad list of positive and negative patient experiences was first created and agreed upon by all 3 investigators. Each individual comment was then attributed to 1 or more of these positive or negative themes. Of these comments, 10% were coded by 2 investigators (S.X. and Z.A.) to ensure internal validity; 1 investigator coded the remaining statements by patients (Z.A.). Patient-reported satisfaction ratings categorized as “worth it” or “not worth it” (as used by RealSelf to describe the patient-perceived value and utility of a given procedure) as well as cost of MMS were gathered. Cumulative patient ratings were collected for the procedure overall, physician’s bedside manner, answered questions, aftercare follow-up, time spent with patients, telephone/email responsiveness, staff professionalism/courtesy, payment process, and wait times. Patient-reported characteristics of MMS also were evaluated including physician specialty, lesion location, type of skin cancer, and type of closure. For lesion location, we graded whether the location represented a high-risk area as defined by the American Academy of Dermatology, American College of Mohs Surgery, and American Society for Dermatologic Surgery.5
Results
A total of 219 reviews related to MMS were collected as of December 20, 2015. Overall, MMS was considered “worth it” by 89% of patients (Table 1). Only 2% of patients described MMS as “not worth it.” There was a wide range reported for the cost of the procedure ($1–$100,000 [median, $1800]). Of those patients who reported their sex, females were 2.5-times more likely to post a review compared to males (51% vs 20%); however, 30% of reviewers did not report their sex. The mean (standard deviation) overall satisfaction rating was 4.8 (0.8). With regard to category-specific ratings (eg, bedside manner, aftercare follow-up, time spent with patients), the mean scores were all 4.7 or greater (Table 2).
Regarding the surgical aspects of the procedure, the majority of patients reported that the excision of the lesion was performed by a dermatologist (62%). However, a notable portion of patients reported that the excision was performed by a plastic surgeon (21%). Physician specialty was not reported in 16% of the reviews. For the lesion closure, the patient-reported specialty of the physician was only slightly higher for dermatologists versus plastic surgeons (46% vs 44%)(Table 3).
The majority of patients who reported the location of the lesion treated with MMS identified a high-risk location (45%), a medium-risk location (18%), or an unspecified region of the face (15%), according to the appropriate-use criteria for MMS (Table 3).5 Patients did not specify the site of surgery 17% of the time. Only 5% of reported procedures were performed on low-risk areas.
Basal cell carcinomas were the most commonly reported lesions removed by MMS (38%), though 48% of reviews did not specify the type of tumor being treated (Table 3). A large majority (76%) did not specify the type of closure performed. When specified, secondary intention was used 10% of the time, followed by either a flap (6%) or skin graft (6%). Only 5% of patients reported an estimated size of the primary lesion in our study (data not shown).
The qualitative analysis demonstrated variance in themes for positive and negative characteristics (Table 4). Surgeon characteristics encompassed the 3 most commonly cited themes of positive remarks, including bedside manner (78%), communication skills (74%), and perceived expertise (58%). Specific to MMS, the tissue-sparing nature of the technique was cited by 14% of reviews as a positive theme. The most commonly cited themes of negative remarks were intraoperative and postoperative concerns, including postoperative disfigurement (16%), large scar (9%), healing time (9%), and procedural or postoperative pain (8%). A subtheme analysis of postoperative disfigurement revealed that eyelid or eyebrow distortion was the most common concern (29%), followed by redness and swelling (23%), an open wound (14%), and nostril/nose distortion (14%)(data not shown). Themes not commonly cited as either positive or negative included office environment, cost, and procedure time (data not shown).
Comment
The overall satisfaction with MMS (89%) was one of the highest for any procedure on this online patient review site, albeit based on fewer reviews compared to other common aesthetic surgical procedures. In comparison, 78% of 13,500 reviewers rated breast augmentation as “worth it,” while 60% of 6800 reviewers rated rhinoplasty as “worth it” (as of December 2015). Overall, the online patient reviews evaluated in this study were consistent with a previously published structured data report on patient satisfaction with MMS.6
The results show a greater than expected proportion of both the MMS excision and closure being performed by plastic surgeons compared to dermatologists. In reality, the majority of MMS excisions are performed by dermatologists. Based on a survey of American College of Mohs Surgery (ACMS) members, only 6% of procedures were sent to other specialties for closure.7 Our results may reflect reporting bias or patients misconstruing true MMS with an excision and standard frozen sections, techniques that have lower cure rates. If so, there may be a need to educate patients regarding the specifics of MMS. Other possible explanations for the discrepancy between the online patient reviews and ACMS data include misinterpretation by patients on the exact definition of MMS or that a higher than expected number of procedures were performed by non-ACMS Mohs surgeons.
Our qualitative analysis revealed that patients most frequently commented on the interpersonal skills of their surgeons (eg, bedside manner, communication) as positive themes during MMS, similar to prior analyses of general dermatology practices.3 In comparison to a recent study assessing patient satisfaction with rhinoplasty on RealSelf, the final appearance of the nose represented the most common positive- and negative-cited theme.8 Mohs micrographic surgery procedures typically are done under local anesthesia, which may explain the greater importance of bedside manner and communication intraoperatively in comparison to final surgical outcomes for patient satisfaction. For negative themes, 3 of 4 most common concerns were directly related to the intraoperative and postoperative periods. Providers may be able to improve patient satisfaction by explaining the postoperative course, such as healing time and temporary physical restrictions, as well as possible sequelae in greater detail, which may be particularly pertinent for MMS involving the nose or near the eyes.
The global ratings for MMS are high, as shown in our data set of patient reviews; however, patient reviews are highly susceptible to reporting bias, recall bias, and missing information. Prior work using this online patient review website to investigate laser and light procedures also demonstrated the risk for imperfect information associated with patient reviews.9 Even so, the data does provide a glimpse into what is considered important to patients. Surgeon interpersonal skills and communication were the most frequently cited positive themes for MMS. The best surgical aspects of MMS focused on the unique tissue-sparing nature of the procedure and the removal of a cancerous lesion. Potential areas for improvement include a more thorough explanation of the intraoperative and postoperative process, specifically potential asymmetry related to the nose or the eyes, healing time, and scarring. These patient reviews underscore the importance of setting appropriate patient expectations. As patients become more connected and utilize online platforms to report their experiences, Mohs surgeons can take insights derived from online patient reviews for their own practice or geographic area to improve satisfaction and manage expectations.
- Alam M, Ibrahim O, Nodzenski M, et al. Adverse events associated with Mohs micrographic surgery: multicenter prospective cohort study of 20,821 cases at 23 centers. JAMA Dermatol. 2013;149:1378-1385.
- Fox S. The social life of health information. Pew Research Center website. http://www.pewresearch.org/fact-tank/2014/01/15/the-social-life-of-health-information/. Published January 15, 2014. Accessed February 11, 2017.
- Smith RJ, Lipoff JB. Evaluation of dermatology practice online reviews: lessons from qualitative analysis. JAMA Dermatol. 2016;152:153-157.
- Schlichte MJ, Karimkhani C, Jones T, et al. Patient use of social media to evaluate cosmetic treatments and procedures. Dermatol Online J. 2015;21. pii:13030/qt88z6r65x.
- American Academy of Dermatology; American College of Mohs Surgery; American Society for Dermatologic Surgery Association; American Society for Mohs Surgery; Ad Hoc Task Force, Connolly SM, Baker DR, Coldiron BM, et al. AAD/ACMS/ASDSA/ASMS 2012 appropriate use criteria for Mohs micrographic surgery: a report of the American Academy of Dermatology, American College of Mohs Surgery, American Society for Dermatologic Surgery Association, and the American Society for Mohs Surgery [published online September 7, 2012]. Dermatol Surg. 2012;38:1582-1603.
- Asgari MM, Bertenthal D, Sen S, et al. Patient satisfaction after treatment of nonmelanoma skin cancer. Derm Surg. 2009;35:1041-1049.
- Campbell RM, Perlis CS, Malik MK, et al. Characteristics of Mohs practices in the United States: a recall survey of ACMS surgeons. Dermatol Surg. 2007;33:1413-1418; discussion, 1418.
- Khansa I, Khansa L, Pearson GD. Patient satisfaction after rhinoplasty: a social media analysis. Aesthet Surg J. 2016;36:NP1-5.
- Xu S, Walter J, Bhatia A. Patient-reported online satisfaction for laser and light procedures: need for caution. Dermatol Surg. 2017;43:154-158.
- Alam M, Ibrahim O, Nodzenski M, et al. Adverse events associated with Mohs micrographic surgery: multicenter prospective cohort study of 20,821 cases at 23 centers. JAMA Dermatol. 2013;149:1378-1385.
- Fox S. The social life of health information. Pew Research Center website. http://www.pewresearch.org/fact-tank/2014/01/15/the-social-life-of-health-information/. Published January 15, 2014. Accessed February 11, 2017.
- Smith RJ, Lipoff JB. Evaluation of dermatology practice online reviews: lessons from qualitative analysis. JAMA Dermatol. 2016;152:153-157.
- Schlichte MJ, Karimkhani C, Jones T, et al. Patient use of social media to evaluate cosmetic treatments and procedures. Dermatol Online J. 2015;21. pii:13030/qt88z6r65x.
- American Academy of Dermatology; American College of Mohs Surgery; American Society for Dermatologic Surgery Association; American Society for Mohs Surgery; Ad Hoc Task Force, Connolly SM, Baker DR, Coldiron BM, et al. AAD/ACMS/ASDSA/ASMS 2012 appropriate use criteria for Mohs micrographic surgery: a report of the American Academy of Dermatology, American College of Mohs Surgery, American Society for Dermatologic Surgery Association, and the American Society for Mohs Surgery [published online September 7, 2012]. Dermatol Surg. 2012;38:1582-1603.
- Asgari MM, Bertenthal D, Sen S, et al. Patient satisfaction after treatment of nonmelanoma skin cancer. Derm Surg. 2009;35:1041-1049.
- Campbell RM, Perlis CS, Malik MK, et al. Characteristics of Mohs practices in the United States: a recall survey of ACMS surgeons. Dermatol Surg. 2007;33:1413-1418; discussion, 1418.
- Khansa I, Khansa L, Pearson GD. Patient satisfaction after rhinoplasty: a social media analysis. Aesthet Surg J. 2016;36:NP1-5.
- Xu S, Walter J, Bhatia A. Patient-reported online satisfaction for laser and light procedures: need for caution. Dermatol Surg. 2017;43:154-158.
Resident Pearl
Patients are posting reviews online now more than ever regarding their experiences with dermatologic surgical procedures. Mohs micrographic surgery is rated highly by patients but suspect to missing information and a higher than expected attribution of the procedure to plastic surgeons.
What I wish I knew when I started my internship
In my first year of residency I faced a steep learning curve. I learned a lot about psychiatry, but I learned so much more about myself. If I had known then what I know now, my internship would have been smoother and more enjoyable.
Be organized. Create systems to remember your patients’ information and your to-do list. I have templates of progress notes, psychiatry assessments, mental status assessments, “rounds sheets” (a sheet listing every patient on my floor, including their diagnoses, laboratories, medications, and other notes). Although my system involves lots of paper, I like it. Make a system that works for you. Go out and have fun. I know you are tired, you haven’t slept, and your apartment is a mess, but you won’t remember that time you went home, did laundry, and went to bed early. You will remember the fun night when you and other interns went out and explored the city.
Unplug from medicine. Nothing is more boring than working for 12 hours, only to go out for drinks with coworkers and talk about work. Although you need to vent, life is more than medicine. Find time for something else. Read a book, play a video game, hang out with people who are not doctors. I started a monthly book club with other women around my age. Make some time for something other than your profession.
Reach out to your senior colleagues. I was so concerned about making a good first impression that I didn’t share my concerns with others. I kept my head low because I always blame myself first when something is wrong.
During an off-service rotation, I was unable to finish my shift because I had food poisoning. To make up for that uncompleted shift, the chief from that service gave me 2 extra night shifts. I found the measure extreme, but thought it was my fault for going home early. A few days later, the Psychiatry Chief Resident approached me, after he had seen my schedule and spoke with the other chief because he found the situation unfair. He was reaching out to me saying, “We’ve got your back.” I realized that it wasn’t always my fault, and I could speak up when there was an issue. I was fortunate to have seniors and chiefs who looked out for me. I always found support, good advice, and respect for my feelings.
If you have questions or concerns, are anxious, or feel something is wrong, approach a senior or the chief. They were in your shoes once and will give you their best advice.
Medicine is different in the United States. As an international medica
People understand that you are from another country. At the beginning, I used Google to search for everything, and then I realized that my 2 wonderful students didn’t think less of me because I didn’t know what BKA (below knee amputation) means. Do not be ashamed if you don’t know how things work in a different country. You will find people who are willing to help you; you will learn, and it will be a minor thing a year from now.
Keep your support system. It was 3
If you moved away from home for residency, you are surrounded by new faces and far from the people you are comfortable with. Do not lose touch with them because you never know when you might need them the most. I had a hard road getting to where I am now, and many people helped me. You have to be there for them, too; a text message takes 30 seconds, and an e-mail, 1 minute.
Remember, you need to take care of yourself before taking care of others. No matter how much the MD or DO degree makes you feel like a superhero, you are still human.
In my first year of residency I faced a steep learning curve. I learned a lot about psychiatry, but I learned so much more about myself. If I had known then what I know now, my internship would have been smoother and more enjoyable.
Be organized. Create systems to remember your patients’ information and your to-do list. I have templates of progress notes, psychiatry assessments, mental status assessments, “rounds sheets” (a sheet listing every patient on my floor, including their diagnoses, laboratories, medications, and other notes). Although my system involves lots of paper, I like it. Make a system that works for you. Go out and have fun. I know you are tired, you haven’t slept, and your apartment is a mess, but you won’t remember that time you went home, did laundry, and went to bed early. You will remember the fun night when you and other interns went out and explored the city.
Unplug from medicine. Nothing is more boring than working for 12 hours, only to go out for drinks with coworkers and talk about work. Although you need to vent, life is more than medicine. Find time for something else. Read a book, play a video game, hang out with people who are not doctors. I started a monthly book club with other women around my age. Make some time for something other than your profession.
Reach out to your senior colleagues. I was so concerned about making a good first impression that I didn’t share my concerns with others. I kept my head low because I always blame myself first when something is wrong.
During an off-service rotation, I was unable to finish my shift because I had food poisoning. To make up for that uncompleted shift, the chief from that service gave me 2 extra night shifts. I found the measure extreme, but thought it was my fault for going home early. A few days later, the Psychiatry Chief Resident approached me, after he had seen my schedule and spoke with the other chief because he found the situation unfair. He was reaching out to me saying, “We’ve got your back.” I realized that it wasn’t always my fault, and I could speak up when there was an issue. I was fortunate to have seniors and chiefs who looked out for me. I always found support, good advice, and respect for my feelings.
If you have questions or concerns, are anxious, or feel something is wrong, approach a senior or the chief. They were in your shoes once and will give you their best advice.
Medicine is different in the United States. As an international medica
People understand that you are from another country. At the beginning, I used Google to search for everything, and then I realized that my 2 wonderful students didn’t think less of me because I didn’t know what BKA (below knee amputation) means. Do not be ashamed if you don’t know how things work in a different country. You will find people who are willing to help you; you will learn, and it will be a minor thing a year from now.
Keep your support system. It was 3
If you moved away from home for residency, you are surrounded by new faces and far from the people you are comfortable with. Do not lose touch with them because you never know when you might need them the most. I had a hard road getting to where I am now, and many people helped me. You have to be there for them, too; a text message takes 30 seconds, and an e-mail, 1 minute.
Remember, you need to take care of yourself before taking care of others. No matter how much the MD or DO degree makes you feel like a superhero, you are still human.
In my first year of residency I faced a steep learning curve. I learned a lot about psychiatry, but I learned so much more about myself. If I had known then what I know now, my internship would have been smoother and more enjoyable.
Be organized. Create systems to remember your patients’ information and your to-do list. I have templates of progress notes, psychiatry assessments, mental status assessments, “rounds sheets” (a sheet listing every patient on my floor, including their diagnoses, laboratories, medications, and other notes). Although my system involves lots of paper, I like it. Make a system that works for you. Go out and have fun. I know you are tired, you haven’t slept, and your apartment is a mess, but you won’t remember that time you went home, did laundry, and went to bed early. You will remember the fun night when you and other interns went out and explored the city.
Unplug from medicine. Nothing is more boring than working for 12 hours, only to go out for drinks with coworkers and talk about work. Although you need to vent, life is more than medicine. Find time for something else. Read a book, play a video game, hang out with people who are not doctors. I started a monthly book club with other women around my age. Make some time for something other than your profession.
Reach out to your senior colleagues. I was so concerned about making a good first impression that I didn’t share my concerns with others. I kept my head low because I always blame myself first when something is wrong.
During an off-service rotation, I was unable to finish my shift because I had food poisoning. To make up for that uncompleted shift, the chief from that service gave me 2 extra night shifts. I found the measure extreme, but thought it was my fault for going home early. A few days later, the Psychiatry Chief Resident approached me, after he had seen my schedule and spoke with the other chief because he found the situation unfair. He was reaching out to me saying, “We’ve got your back.” I realized that it wasn’t always my fault, and I could speak up when there was an issue. I was fortunate to have seniors and chiefs who looked out for me. I always found support, good advice, and respect for my feelings.
If you have questions or concerns, are anxious, or feel something is wrong, approach a senior or the chief. They were in your shoes once and will give you their best advice.
Medicine is different in the United States. As an international medica
People understand that you are from another country. At the beginning, I used Google to search for everything, and then I realized that my 2 wonderful students didn’t think less of me because I didn’t know what BKA (below knee amputation) means. Do not be ashamed if you don’t know how things work in a different country. You will find people who are willing to help you; you will learn, and it will be a minor thing a year from now.
Keep your support system. It was 3
If you moved away from home for residency, you are surrounded by new faces and far from the people you are comfortable with. Do not lose touch with them because you never know when you might need them the most. I had a hard road getting to where I am now, and many people helped me. You have to be there for them, too; a text message takes 30 seconds, and an e-mail, 1 minute.
Remember, you need to take care of yourself before taking care of others. No matter how much the MD or DO degree makes you feel like a superhero, you are still human.
Pediatric Nail Diseases: Clinical Pearls
Our dermatology department recently sponsored a pediatric dermatology lecture series for the pediatric residency program. Within this series, Antonella Tosti, MD, a professor at the University of Miami Health System, Florida, and a renowned expert in nail disorders and allergic contact dermatitis, presented her clinical expertise on the presentation and management of common pediatric nail diseases. This article highlights pearls from her unique and enlightening lecture.
Pearl: Hand-foot-and-mouth disease is a recognized trigger for onychomadesis
An arrest in nail matrix activity is responsible for onychomadesis, or shedding of the nail. Its presentation in children can be further divided based upon the degree of involvement. If a few nails are affected, trauma should be implicated. In contrast, if all nails are involved, a systemic etiology should be suspected. Hand-foot-and-mouth disease (HFMD) has been recognized as a trigger for onychomadesis in school-aged children. Onychomadesis presents with characteristic proximal nail detachment (Figure 1). The association of HFMD with onychomadesis and Beau lines was first reported in 2000. Five patients who resided within close proximity and shared a physician-diagnosed case of HFMD presented with representative nail findings 4 weeks after illness.1 Hypotheses for these changes include viral-induced nail pathology, inflammation from cutaneous lesions of HFMD, and systemic effects from the disease.2 Given the prevalence of HFMD and benign outcome, clinicians should be cognizant of this unique cutaneous manifestation.
Pearl: Management of pediatric melanonychia can take a wait-and-see approach
Melanonychia is the presence of a longitudinal brown-black band extending from the proximal nail fold. The cause of melanonychia can be due to either activation or hyperplasia. Activation is the less common etiology in children; however, if present, activation can be due to Laugier-Hunziker syndrome or trauma such as onychotillomania. Melanonychia in children usually is the result of hyperplasia of melanocytes and can manifest as a lentigo, nevus, or more rarely melanoma. Nail matrix nevi are typically exhibited on the fingernails, particularly the thumb, and frequently are junctional nevi (Figure 2). Spontaneous fading of nevi is expected with time due to decreased melanin production. Therapeutic options for melanonychia include regular clinical monitoring, biopsy, or excision. Dr. Tosti explained that one must be wary when pursuing a biopsy, as it can result in a false-negative finding due to missed pathology. If clinically indicated, a shave biopsy of the nail matrix can be performed to best analyze the lesion. She noted that if more than 3 mm of the matrix is removed, a resultant scar will ensue. Conservative management is recommended given the indolent clinical behavior of the majority of cases of melanonychia in children.3
Pearl: Congenital hypertrophy of the lateral nail folds can be treated with tape
Congenital hypertrophy of the lateral nail folds is relatively common in children and normally improves with age. Koilonychia may also occur simultaneously and can be viewed as a physiologic process in this age group. The etiology of the underlying disorder is due to anomalous periungual soft-tissue changes of the bilateral halluces; the resulting overgrowth can partially cover the nail plate. Although usually a self-limiting condition, the changes can cause inflammation and discomfort due to an ingrown nail.4 Dr. Tosti advised that by simply taping and retracting the bilateral overgrowth, the condition can be more readily resolved. This simple treatment can be demonstrated in the office and subsequently performed at home.
Pearl: Onychomycosis is uncommon in children
Onychomycosis occurs in less than 1% of children.5 Several factors are responsible for this decreased prevalence. More rapid nail growth and smaller nail surface area decreases the ability of the fungi to penetrate the nail plate.6 Furthermore, children have a diminished rate of tinea pedis, leading to less neighboring infection. When onychomycosis does affect this patient population, it commonly presents as distal subungual onychomycosis and favors the fingernails over the toenails. Treatment options usually parallel those of the adult population; however, all medications for children are considered off-label use by the US Food and Drug Administration. Dr. Tosti explained that oral granules of terbinafine can be sprinkled on food to help with pediatric ingestion. Topical therapies should also be considered; children usually respond better than their adult counterparts due to their thinner nails, which grant enhanced drug delivery and penetration.6
Pearl: Acute paronychia can be due to nail-biting and sucking
Acute paronychia is inflammation of the proximal nail fold. In children, it frequently is a result of mixed flora induced by nail-biting and sucking. Management involves culturing the affected lesions and is effectively treated with warm soaks alone. Dr. Tosti highlighted that Candida in the subungual space is a common colonizer and is typically self-limiting in nature if isolated. Candida can be cultured more readily in premature infants, immunosuppressed patients, and those with chronic mucocutaneous candidiasis. Patients with chronic mucocutaneous candidiasis can exhibit periungual inflammation involving several digits. The differential can include nail psoriasis, as both can demonstrate dystrophic changes. The differential for localized paronychia includes herpetic whitlow and can manifest as vesicles under the proximal nail fold.
Final Thoughts
These clinical pearls are shared to help deliver utmost care to our pediatric patients presenting with nail pathology. For example, a child exhibiting melanonychia can cause alarm due to the possibility of underlying melanoma; given the rarity of neoplasia in these patients, a conservative approach is favored to help avoid unnecessary biopsies and subsequent scarring. Similarly, it is important to be aware of the common colonizers of the subungual area, particularly Candida, to avoid unessential medications with potential side effects. The examples demonstrated help shed light on the management of pediatric nail diseases.
Acknowledgment
This article is possible thanks to the help of Antonella Tosti, MD (Miami, Florida), who contributed her time and expertise at the University of Miami Pediatric Grand Rounds to expand the foundation and knowledge of pediatric nail diseases.
- Clementz GC, Mancini AJ. Nail matrix arrest following hand-foot-mouth disease: a report of five children. Pediatr Dermatol. 2000;17:7-11.
- Yuksel S, Evrengul H, Ozhan B, et al. Onychomadesis-a late complication of hand-foot-mouth disease [published online May 2, 2016]. J Pediatr. 2016;174:274.
- Cooper C, Arva NC, Lee C, et al. A clinical, histopathologic, and outcome study of melanonychia striata in childhood. J Am Acad Dermatol. 2015;72:773-779.
- Piraccini BM, Parente GL, Varotti E, et al. Congenital hypertrophy of the lateral nail folds of the hallux: clinical features and follow-up of seven cases. Pediatr Dermatol. 2000;17:348-351.
- Totri CR, Feldstein S, Admani S, et al. Epidemiologic analysis of onychomycosis in the San Diego pediatric population [published online October 4, 2016]. Pediatr Dermatol. 2017;34:46-49.
- Feldstein S, Totri C, Friedlander SF. Antifungal therapy for onychomycosis in children. Clin Dermatol. 2015;33:333-339.
Our dermatology department recently sponsored a pediatric dermatology lecture series for the pediatric residency program. Within this series, Antonella Tosti, MD, a professor at the University of Miami Health System, Florida, and a renowned expert in nail disorders and allergic contact dermatitis, presented her clinical expertise on the presentation and management of common pediatric nail diseases. This article highlights pearls from her unique and enlightening lecture.
Pearl: Hand-foot-and-mouth disease is a recognized trigger for onychomadesis
An arrest in nail matrix activity is responsible for onychomadesis, or shedding of the nail. Its presentation in children can be further divided based upon the degree of involvement. If a few nails are affected, trauma should be implicated. In contrast, if all nails are involved, a systemic etiology should be suspected. Hand-foot-and-mouth disease (HFMD) has been recognized as a trigger for onychomadesis in school-aged children. Onychomadesis presents with characteristic proximal nail detachment (Figure 1). The association of HFMD with onychomadesis and Beau lines was first reported in 2000. Five patients who resided within close proximity and shared a physician-diagnosed case of HFMD presented with representative nail findings 4 weeks after illness.1 Hypotheses for these changes include viral-induced nail pathology, inflammation from cutaneous lesions of HFMD, and systemic effects from the disease.2 Given the prevalence of HFMD and benign outcome, clinicians should be cognizant of this unique cutaneous manifestation.
Pearl: Management of pediatric melanonychia can take a wait-and-see approach
Melanonychia is the presence of a longitudinal brown-black band extending from the proximal nail fold. The cause of melanonychia can be due to either activation or hyperplasia. Activation is the less common etiology in children; however, if present, activation can be due to Laugier-Hunziker syndrome or trauma such as onychotillomania. Melanonychia in children usually is the result of hyperplasia of melanocytes and can manifest as a lentigo, nevus, or more rarely melanoma. Nail matrix nevi are typically exhibited on the fingernails, particularly the thumb, and frequently are junctional nevi (Figure 2). Spontaneous fading of nevi is expected with time due to decreased melanin production. Therapeutic options for melanonychia include regular clinical monitoring, biopsy, or excision. Dr. Tosti explained that one must be wary when pursuing a biopsy, as it can result in a false-negative finding due to missed pathology. If clinically indicated, a shave biopsy of the nail matrix can be performed to best analyze the lesion. She noted that if more than 3 mm of the matrix is removed, a resultant scar will ensue. Conservative management is recommended given the indolent clinical behavior of the majority of cases of melanonychia in children.3
Pearl: Congenital hypertrophy of the lateral nail folds can be treated with tape
Congenital hypertrophy of the lateral nail folds is relatively common in children and normally improves with age. Koilonychia may also occur simultaneously and can be viewed as a physiologic process in this age group. The etiology of the underlying disorder is due to anomalous periungual soft-tissue changes of the bilateral halluces; the resulting overgrowth can partially cover the nail plate. Although usually a self-limiting condition, the changes can cause inflammation and discomfort due to an ingrown nail.4 Dr. Tosti advised that by simply taping and retracting the bilateral overgrowth, the condition can be more readily resolved. This simple treatment can be demonstrated in the office and subsequently performed at home.
Pearl: Onychomycosis is uncommon in children
Onychomycosis occurs in less than 1% of children.5 Several factors are responsible for this decreased prevalence. More rapid nail growth and smaller nail surface area decreases the ability of the fungi to penetrate the nail plate.6 Furthermore, children have a diminished rate of tinea pedis, leading to less neighboring infection. When onychomycosis does affect this patient population, it commonly presents as distal subungual onychomycosis and favors the fingernails over the toenails. Treatment options usually parallel those of the adult population; however, all medications for children are considered off-label use by the US Food and Drug Administration. Dr. Tosti explained that oral granules of terbinafine can be sprinkled on food to help with pediatric ingestion. Topical therapies should also be considered; children usually respond better than their adult counterparts due to their thinner nails, which grant enhanced drug delivery and penetration.6
Pearl: Acute paronychia can be due to nail-biting and sucking
Acute paronychia is inflammation of the proximal nail fold. In children, it frequently is a result of mixed flora induced by nail-biting and sucking. Management involves culturing the affected lesions and is effectively treated with warm soaks alone. Dr. Tosti highlighted that Candida in the subungual space is a common colonizer and is typically self-limiting in nature if isolated. Candida can be cultured more readily in premature infants, immunosuppressed patients, and those with chronic mucocutaneous candidiasis. Patients with chronic mucocutaneous candidiasis can exhibit periungual inflammation involving several digits. The differential can include nail psoriasis, as both can demonstrate dystrophic changes. The differential for localized paronychia includes herpetic whitlow and can manifest as vesicles under the proximal nail fold.
Final Thoughts
These clinical pearls are shared to help deliver utmost care to our pediatric patients presenting with nail pathology. For example, a child exhibiting melanonychia can cause alarm due to the possibility of underlying melanoma; given the rarity of neoplasia in these patients, a conservative approach is favored to help avoid unnecessary biopsies and subsequent scarring. Similarly, it is important to be aware of the common colonizers of the subungual area, particularly Candida, to avoid unessential medications with potential side effects. The examples demonstrated help shed light on the management of pediatric nail diseases.
Acknowledgment
This article is possible thanks to the help of Antonella Tosti, MD (Miami, Florida), who contributed her time and expertise at the University of Miami Pediatric Grand Rounds to expand the foundation and knowledge of pediatric nail diseases.
Our dermatology department recently sponsored a pediatric dermatology lecture series for the pediatric residency program. Within this series, Antonella Tosti, MD, a professor at the University of Miami Health System, Florida, and a renowned expert in nail disorders and allergic contact dermatitis, presented her clinical expertise on the presentation and management of common pediatric nail diseases. This article highlights pearls from her unique and enlightening lecture.
Pearl: Hand-foot-and-mouth disease is a recognized trigger for onychomadesis
An arrest in nail matrix activity is responsible for onychomadesis, or shedding of the nail. Its presentation in children can be further divided based upon the degree of involvement. If a few nails are affected, trauma should be implicated. In contrast, if all nails are involved, a systemic etiology should be suspected. Hand-foot-and-mouth disease (HFMD) has been recognized as a trigger for onychomadesis in school-aged children. Onychomadesis presents with characteristic proximal nail detachment (Figure 1). The association of HFMD with onychomadesis and Beau lines was first reported in 2000. Five patients who resided within close proximity and shared a physician-diagnosed case of HFMD presented with representative nail findings 4 weeks after illness.1 Hypotheses for these changes include viral-induced nail pathology, inflammation from cutaneous lesions of HFMD, and systemic effects from the disease.2 Given the prevalence of HFMD and benign outcome, clinicians should be cognizant of this unique cutaneous manifestation.
Pearl: Management of pediatric melanonychia can take a wait-and-see approach
Melanonychia is the presence of a longitudinal brown-black band extending from the proximal nail fold. The cause of melanonychia can be due to either activation or hyperplasia. Activation is the less common etiology in children; however, if present, activation can be due to Laugier-Hunziker syndrome or trauma such as onychotillomania. Melanonychia in children usually is the result of hyperplasia of melanocytes and can manifest as a lentigo, nevus, or more rarely melanoma. Nail matrix nevi are typically exhibited on the fingernails, particularly the thumb, and frequently are junctional nevi (Figure 2). Spontaneous fading of nevi is expected with time due to decreased melanin production. Therapeutic options for melanonychia include regular clinical monitoring, biopsy, or excision. Dr. Tosti explained that one must be wary when pursuing a biopsy, as it can result in a false-negative finding due to missed pathology. If clinically indicated, a shave biopsy of the nail matrix can be performed to best analyze the lesion. She noted that if more than 3 mm of the matrix is removed, a resultant scar will ensue. Conservative management is recommended given the indolent clinical behavior of the majority of cases of melanonychia in children.3
Pearl: Congenital hypertrophy of the lateral nail folds can be treated with tape
Congenital hypertrophy of the lateral nail folds is relatively common in children and normally improves with age. Koilonychia may also occur simultaneously and can be viewed as a physiologic process in this age group. The etiology of the underlying disorder is due to anomalous periungual soft-tissue changes of the bilateral halluces; the resulting overgrowth can partially cover the nail plate. Although usually a self-limiting condition, the changes can cause inflammation and discomfort due to an ingrown nail.4 Dr. Tosti advised that by simply taping and retracting the bilateral overgrowth, the condition can be more readily resolved. This simple treatment can be demonstrated in the office and subsequently performed at home.
Pearl: Onychomycosis is uncommon in children
Onychomycosis occurs in less than 1% of children.5 Several factors are responsible for this decreased prevalence. More rapid nail growth and smaller nail surface area decreases the ability of the fungi to penetrate the nail plate.6 Furthermore, children have a diminished rate of tinea pedis, leading to less neighboring infection. When onychomycosis does affect this patient population, it commonly presents as distal subungual onychomycosis and favors the fingernails over the toenails. Treatment options usually parallel those of the adult population; however, all medications for children are considered off-label use by the US Food and Drug Administration. Dr. Tosti explained that oral granules of terbinafine can be sprinkled on food to help with pediatric ingestion. Topical therapies should also be considered; children usually respond better than their adult counterparts due to their thinner nails, which grant enhanced drug delivery and penetration.6
Pearl: Acute paronychia can be due to nail-biting and sucking
Acute paronychia is inflammation of the proximal nail fold. In children, it frequently is a result of mixed flora induced by nail-biting and sucking. Management involves culturing the affected lesions and is effectively treated with warm soaks alone. Dr. Tosti highlighted that Candida in the subungual space is a common colonizer and is typically self-limiting in nature if isolated. Candida can be cultured more readily in premature infants, immunosuppressed patients, and those with chronic mucocutaneous candidiasis. Patients with chronic mucocutaneous candidiasis can exhibit periungual inflammation involving several digits. The differential can include nail psoriasis, as both can demonstrate dystrophic changes. The differential for localized paronychia includes herpetic whitlow and can manifest as vesicles under the proximal nail fold.
Final Thoughts
These clinical pearls are shared to help deliver utmost care to our pediatric patients presenting with nail pathology. For example, a child exhibiting melanonychia can cause alarm due to the possibility of underlying melanoma; given the rarity of neoplasia in these patients, a conservative approach is favored to help avoid unnecessary biopsies and subsequent scarring. Similarly, it is important to be aware of the common colonizers of the subungual area, particularly Candida, to avoid unessential medications with potential side effects. The examples demonstrated help shed light on the management of pediatric nail diseases.
Acknowledgment
This article is possible thanks to the help of Antonella Tosti, MD (Miami, Florida), who contributed her time and expertise at the University of Miami Pediatric Grand Rounds to expand the foundation and knowledge of pediatric nail diseases.
- Clementz GC, Mancini AJ. Nail matrix arrest following hand-foot-mouth disease: a report of five children. Pediatr Dermatol. 2000;17:7-11.
- Yuksel S, Evrengul H, Ozhan B, et al. Onychomadesis-a late complication of hand-foot-mouth disease [published online May 2, 2016]. J Pediatr. 2016;174:274.
- Cooper C, Arva NC, Lee C, et al. A clinical, histopathologic, and outcome study of melanonychia striata in childhood. J Am Acad Dermatol. 2015;72:773-779.
- Piraccini BM, Parente GL, Varotti E, et al. Congenital hypertrophy of the lateral nail folds of the hallux: clinical features and follow-up of seven cases. Pediatr Dermatol. 2000;17:348-351.
- Totri CR, Feldstein S, Admani S, et al. Epidemiologic analysis of onychomycosis in the San Diego pediatric population [published online October 4, 2016]. Pediatr Dermatol. 2017;34:46-49.
- Feldstein S, Totri C, Friedlander SF. Antifungal therapy for onychomycosis in children. Clin Dermatol. 2015;33:333-339.
- Clementz GC, Mancini AJ. Nail matrix arrest following hand-foot-mouth disease: a report of five children. Pediatr Dermatol. 2000;17:7-11.
- Yuksel S, Evrengul H, Ozhan B, et al. Onychomadesis-a late complication of hand-foot-mouth disease [published online May 2, 2016]. J Pediatr. 2016;174:274.
- Cooper C, Arva NC, Lee C, et al. A clinical, histopathologic, and outcome study of melanonychia striata in childhood. J Am Acad Dermatol. 2015;72:773-779.
- Piraccini BM, Parente GL, Varotti E, et al. Congenital hypertrophy of the lateral nail folds of the hallux: clinical features and follow-up of seven cases. Pediatr Dermatol. 2000;17:348-351.
- Totri CR, Feldstein S, Admani S, et al. Epidemiologic analysis of onychomycosis in the San Diego pediatric population [published online October 4, 2016]. Pediatr Dermatol. 2017;34:46-49.
- Feldstein S, Totri C, Friedlander SF. Antifungal therapy for onychomycosis in children. Clin Dermatol. 2015;33:333-339.
Strategies for preventing and detecting false-negatives in urine drug screens
Urine drug screening (UDS) is an important tool in emergency settings and substance abuse or pain management clinics. According to the 2015 National Survey on Drug Use and Health, 9.2% of individuals age ≥12 used an illicit drug other than marijuana within the previous year.1
There are 2 types of UDS: gas chromatography–mass spectroscopy (GC-MS) and enzymatic immunoassay (EIA). A GC-MS uses a 2-step mechanisms to detect chemical compounds. First the GC separate the illicit substance into molecules, which is then introduced to the MS, which then separates compounds depending on their mass and charge using magnetic fields.2,3 Although GC-MS is a more definitive means to confirm the presence of a specific drug, it rarely is used in clinical settings because it is expensive and time-consuming.
EIA is an anti-drug antibody added to the patient’s urine that causes a positive indicator reaction that can be measured.2,3 It is a rapid, accurate, and cost-effective way of detecting illicit substances.4 However, there are limitations to EIAs used in most hospital laboratories.
Limitations of EIAs
Timing. Results of the drug screen depend on the time and frequency of drug use (Table 1).5
Sensitivity. The immunoassay methods used vary in their ability to detect substances and depend on the test’s sensitivity; however, most of these versions have high sensitivity for detecting many illicit substances.4
Specificity and cross-reactivity. Unfortunately, many drugs, such as opioids, amphetamines, and commonly prescribed medications, exhibit cross-reactivity that can produce false-positive results (Table 2).5,6
Synthetic cannabinoids, such as “spice” and cathinones, also known as “bath salts,” cannot be detected with standard UDS. However, some newer EIA kits can detect synthetic cannabinoids but do not detect newer designer drugs.7 Detection of specific cathinones by EIA is not yet available.7
Preventing false-negatives
Substance abusing individuals could try to avoid detection of illicit drug use by using the following techniques:
- In vivo methods, such as drinking a large amount of water or using herbal products, can lead to false-negative results because of dilution.8
- In vitro adulterants are substances added to urine samples after urination to avoid drug detection. Active ingredients include glutaraldehyde (Clean-X), sodium or potassium nitrate (Klear, Whizzies), pyridinium chlorochromate (Urine Luck), andj (Stealth).9
- Other methods used to avoid drug detection include substituting a urine sample with someone else’s clean urine or adding household products, such as bleach, vinegar, or pipe cleaner.
You can spot and prevent false-negatives by:
Directly observing the patient, which helps to prevent individuals from adding foreign materials or substituting the urine sample.
Visually inspecting the urine helps identify sample tampering. Adding household adulterants can produce unusually bubbly, cloudy, clear, or dark sample.
On-site analyses and laboratory analyses of samples. Commercially sold kits can detect adulterants by on-site analysis, such as Intect 7 and AdultaCheck 4 test strips.9 Simple on-site methods can help discover tampering, such as measuring the urine’s temperature and using pigmented toilet water. The U.S. Substance Abuse and Mental Health Services Administration recommends validity checks during laboratory analysis for all urine samples, including temperature, creatinine, specific gravity, pH, and tests for oxidizing adulterants.10
Considerations
The results of UDS should not be interpreted as absolute. Knowing the sensitivity and specificity of the UDS that your institution uses and the patient’s current medication regimen is valuable in distinguishing between true results and false-positives. False-positives can strain the relationship between patient and provider, thus compromising care. When EIA is positive and patient denies substance use, confirming the result with GC-MS may be a good clinical practice.3 Ordering a GC-MS test can be helpful in situations requiring greater precision, such as in methadone or pain management clinics, to verify if the patient is taking a prescribed medication properly or to rule out illicit exposures with greater certainty.
Acknowledgment
The authors would like to thank Steven Lippmann, MD, for his mentorship, encouragement, and editorial support.
1. Substance Abuse and Mental Health Services Administration. Results from the National Survey on Drug Use and Health: detailed tables. Prevalence estimates, standard errors, P values, and sample sizes. https://www.samhsa.gov/data/sites/default/files/NSDUH-DetTabs-2015/NSDUH-DetTabs-2015/NSDUH-DetTabs-2015.pdf. Published September 8, 2016. Accessed February 7, 2017.
2. Schweitzer BN. An assessment of lateral flow immunoassay testing and gas chromatography mass spectrometry as methods for the detection of five drugs of abuse in forensic bloodstains. https://open.bu.edu/bitstream/handle/2144/19477/Schweitzer_bu_0017N_12357.pdf?sequence=1. Published 2016. Accessed February 7, 2017.
3. Pawlowski J, Ellingrod VL. Urine drug screens: when might a test result be false-positive? Current Psychiatry. 2015;14(10):17,22-24.
4. Tenore PL. Advanced urine toxicology testing. J Addict Dis. 2010;29(4):436-448.
5. AIT Laboratories. Physician’s reference for urine and blood drug testing and interpretation. http://web.archive.org/web/20160312195526/http://aitlabs.com/uploadedfiles/services/pocket_guide_smr086.pdf. Published 2011. Accessed February 7, 2017.
6. Saitman A, Park HD, Fitzgerald RL. False-positive interferences of common urine drug screen immunoassays: a review. J Anal Toxicol. 2014;38(7):387-396.
7. Namera A, Kawamura M, Nakamoto A, et al. Comprehensive review of the detection methods for synthetic cannabinoids and cathinones. Forensic Toxicol. 2015;33(2):175-194.
8. Cone EJ, Lange R, Darwin WD. In vivo adulteration: excess fluid ingestion causes false-negative marijuana and cocaine urine test results. J Anal Toxicol. 1998;22(6):460-473.
9. Jaffee WB, Trucco E, Levy S, et al. Is this urine really negative? A systematic review of tampering methods in urine drug screening and testing. J Subst Abuse Treat. 2007;33(1):33-42.
10. Substance Abuse and Mental Health Services Administration. Mandatory guidelines for federal workplace drug testing programs. Federal Register. 2004;69:19644-19673.
Urine drug screening (UDS) is an important tool in emergency settings and substance abuse or pain management clinics. According to the 2015 National Survey on Drug Use and Health, 9.2% of individuals age ≥12 used an illicit drug other than marijuana within the previous year.1
There are 2 types of UDS: gas chromatography–mass spectroscopy (GC-MS) and enzymatic immunoassay (EIA). A GC-MS uses a 2-step mechanisms to detect chemical compounds. First the GC separate the illicit substance into molecules, which is then introduced to the MS, which then separates compounds depending on their mass and charge using magnetic fields.2,3 Although GC-MS is a more definitive means to confirm the presence of a specific drug, it rarely is used in clinical settings because it is expensive and time-consuming.
EIA is an anti-drug antibody added to the patient’s urine that causes a positive indicator reaction that can be measured.2,3 It is a rapid, accurate, and cost-effective way of detecting illicit substances.4 However, there are limitations to EIAs used in most hospital laboratories.
Limitations of EIAs
Timing. Results of the drug screen depend on the time and frequency of drug use (Table 1).5
Sensitivity. The immunoassay methods used vary in their ability to detect substances and depend on the test’s sensitivity; however, most of these versions have high sensitivity for detecting many illicit substances.4
Specificity and cross-reactivity. Unfortunately, many drugs, such as opioids, amphetamines, and commonly prescribed medications, exhibit cross-reactivity that can produce false-positive results (Table 2).5,6
Synthetic cannabinoids, such as “spice” and cathinones, also known as “bath salts,” cannot be detected with standard UDS. However, some newer EIA kits can detect synthetic cannabinoids but do not detect newer designer drugs.7 Detection of specific cathinones by EIA is not yet available.7
Preventing false-negatives
Substance abusing individuals could try to avoid detection of illicit drug use by using the following techniques:
- In vivo methods, such as drinking a large amount of water or using herbal products, can lead to false-negative results because of dilution.8
- In vitro adulterants are substances added to urine samples after urination to avoid drug detection. Active ingredients include glutaraldehyde (Clean-X), sodium or potassium nitrate (Klear, Whizzies), pyridinium chlorochromate (Urine Luck), andj (Stealth).9
- Other methods used to avoid drug detection include substituting a urine sample with someone else’s clean urine or adding household products, such as bleach, vinegar, or pipe cleaner.
You can spot and prevent false-negatives by:
Directly observing the patient, which helps to prevent individuals from adding foreign materials or substituting the urine sample.
Visually inspecting the urine helps identify sample tampering. Adding household adulterants can produce unusually bubbly, cloudy, clear, or dark sample.
On-site analyses and laboratory analyses of samples. Commercially sold kits can detect adulterants by on-site analysis, such as Intect 7 and AdultaCheck 4 test strips.9 Simple on-site methods can help discover tampering, such as measuring the urine’s temperature and using pigmented toilet water. The U.S. Substance Abuse and Mental Health Services Administration recommends validity checks during laboratory analysis for all urine samples, including temperature, creatinine, specific gravity, pH, and tests for oxidizing adulterants.10
Considerations
The results of UDS should not be interpreted as absolute. Knowing the sensitivity and specificity of the UDS that your institution uses and the patient’s current medication regimen is valuable in distinguishing between true results and false-positives. False-positives can strain the relationship between patient and provider, thus compromising care. When EIA is positive and patient denies substance use, confirming the result with GC-MS may be a good clinical practice.3 Ordering a GC-MS test can be helpful in situations requiring greater precision, such as in methadone or pain management clinics, to verify if the patient is taking a prescribed medication properly or to rule out illicit exposures with greater certainty.
Acknowledgment
The authors would like to thank Steven Lippmann, MD, for his mentorship, encouragement, and editorial support.
Urine drug screening (UDS) is an important tool in emergency settings and substance abuse or pain management clinics. According to the 2015 National Survey on Drug Use and Health, 9.2% of individuals age ≥12 used an illicit drug other than marijuana within the previous year.1
There are 2 types of UDS: gas chromatography–mass spectroscopy (GC-MS) and enzymatic immunoassay (EIA). A GC-MS uses a 2-step mechanisms to detect chemical compounds. First the GC separate the illicit substance into molecules, which is then introduced to the MS, which then separates compounds depending on their mass and charge using magnetic fields.2,3 Although GC-MS is a more definitive means to confirm the presence of a specific drug, it rarely is used in clinical settings because it is expensive and time-consuming.
EIA is an anti-drug antibody added to the patient’s urine that causes a positive indicator reaction that can be measured.2,3 It is a rapid, accurate, and cost-effective way of detecting illicit substances.4 However, there are limitations to EIAs used in most hospital laboratories.
Limitations of EIAs
Timing. Results of the drug screen depend on the time and frequency of drug use (Table 1).5
Sensitivity. The immunoassay methods used vary in their ability to detect substances and depend on the test’s sensitivity; however, most of these versions have high sensitivity for detecting many illicit substances.4
Specificity and cross-reactivity. Unfortunately, many drugs, such as opioids, amphetamines, and commonly prescribed medications, exhibit cross-reactivity that can produce false-positive results (Table 2).5,6
Synthetic cannabinoids, such as “spice” and cathinones, also known as “bath salts,” cannot be detected with standard UDS. However, some newer EIA kits can detect synthetic cannabinoids but do not detect newer designer drugs.7 Detection of specific cathinones by EIA is not yet available.7
Preventing false-negatives
Substance abusing individuals could try to avoid detection of illicit drug use by using the following techniques:
- In vivo methods, such as drinking a large amount of water or using herbal products, can lead to false-negative results because of dilution.8
- In vitro adulterants are substances added to urine samples after urination to avoid drug detection. Active ingredients include glutaraldehyde (Clean-X), sodium or potassium nitrate (Klear, Whizzies), pyridinium chlorochromate (Urine Luck), andj (Stealth).9
- Other methods used to avoid drug detection include substituting a urine sample with someone else’s clean urine or adding household products, such as bleach, vinegar, or pipe cleaner.
You can spot and prevent false-negatives by:
Directly observing the patient, which helps to prevent individuals from adding foreign materials or substituting the urine sample.
Visually inspecting the urine helps identify sample tampering. Adding household adulterants can produce unusually bubbly, cloudy, clear, or dark sample.
On-site analyses and laboratory analyses of samples. Commercially sold kits can detect adulterants by on-site analysis, such as Intect 7 and AdultaCheck 4 test strips.9 Simple on-site methods can help discover tampering, such as measuring the urine’s temperature and using pigmented toilet water. The U.S. Substance Abuse and Mental Health Services Administration recommends validity checks during laboratory analysis for all urine samples, including temperature, creatinine, specific gravity, pH, and tests for oxidizing adulterants.10
Considerations
The results of UDS should not be interpreted as absolute. Knowing the sensitivity and specificity of the UDS that your institution uses and the patient’s current medication regimen is valuable in distinguishing between true results and false-positives. False-positives can strain the relationship between patient and provider, thus compromising care. When EIA is positive and patient denies substance use, confirming the result with GC-MS may be a good clinical practice.3 Ordering a GC-MS test can be helpful in situations requiring greater precision, such as in methadone or pain management clinics, to verify if the patient is taking a prescribed medication properly or to rule out illicit exposures with greater certainty.
Acknowledgment
The authors would like to thank Steven Lippmann, MD, for his mentorship, encouragement, and editorial support.
1. Substance Abuse and Mental Health Services Administration. Results from the National Survey on Drug Use and Health: detailed tables. Prevalence estimates, standard errors, P values, and sample sizes. https://www.samhsa.gov/data/sites/default/files/NSDUH-DetTabs-2015/NSDUH-DetTabs-2015/NSDUH-DetTabs-2015.pdf. Published September 8, 2016. Accessed February 7, 2017.
2. Schweitzer BN. An assessment of lateral flow immunoassay testing and gas chromatography mass spectrometry as methods for the detection of five drugs of abuse in forensic bloodstains. https://open.bu.edu/bitstream/handle/2144/19477/Schweitzer_bu_0017N_12357.pdf?sequence=1. Published 2016. Accessed February 7, 2017.
3. Pawlowski J, Ellingrod VL. Urine drug screens: when might a test result be false-positive? Current Psychiatry. 2015;14(10):17,22-24.
4. Tenore PL. Advanced urine toxicology testing. J Addict Dis. 2010;29(4):436-448.
5. AIT Laboratories. Physician’s reference for urine and blood drug testing and interpretation. http://web.archive.org/web/20160312195526/http://aitlabs.com/uploadedfiles/services/pocket_guide_smr086.pdf. Published 2011. Accessed February 7, 2017.
6. Saitman A, Park HD, Fitzgerald RL. False-positive interferences of common urine drug screen immunoassays: a review. J Anal Toxicol. 2014;38(7):387-396.
7. Namera A, Kawamura M, Nakamoto A, et al. Comprehensive review of the detection methods for synthetic cannabinoids and cathinones. Forensic Toxicol. 2015;33(2):175-194.
8. Cone EJ, Lange R, Darwin WD. In vivo adulteration: excess fluid ingestion causes false-negative marijuana and cocaine urine test results. J Anal Toxicol. 1998;22(6):460-473.
9. Jaffee WB, Trucco E, Levy S, et al. Is this urine really negative? A systematic review of tampering methods in urine drug screening and testing. J Subst Abuse Treat. 2007;33(1):33-42.
10. Substance Abuse and Mental Health Services Administration. Mandatory guidelines for federal workplace drug testing programs. Federal Register. 2004;69:19644-19673.
1. Substance Abuse and Mental Health Services Administration. Results from the National Survey on Drug Use and Health: detailed tables. Prevalence estimates, standard errors, P values, and sample sizes. https://www.samhsa.gov/data/sites/default/files/NSDUH-DetTabs-2015/NSDUH-DetTabs-2015/NSDUH-DetTabs-2015.pdf. Published September 8, 2016. Accessed February 7, 2017.
2. Schweitzer BN. An assessment of lateral flow immunoassay testing and gas chromatography mass spectrometry as methods for the detection of five drugs of abuse in forensic bloodstains. https://open.bu.edu/bitstream/handle/2144/19477/Schweitzer_bu_0017N_12357.pdf?sequence=1. Published 2016. Accessed February 7, 2017.
3. Pawlowski J, Ellingrod VL. Urine drug screens: when might a test result be false-positive? Current Psychiatry. 2015;14(10):17,22-24.
4. Tenore PL. Advanced urine toxicology testing. J Addict Dis. 2010;29(4):436-448.
5. AIT Laboratories. Physician’s reference for urine and blood drug testing and interpretation. http://web.archive.org/web/20160312195526/http://aitlabs.com/uploadedfiles/services/pocket_guide_smr086.pdf. Published 2011. Accessed February 7, 2017.
6. Saitman A, Park HD, Fitzgerald RL. False-positive interferences of common urine drug screen immunoassays: a review. J Anal Toxicol. 2014;38(7):387-396.
7. Namera A, Kawamura M, Nakamoto A, et al. Comprehensive review of the detection methods for synthetic cannabinoids and cathinones. Forensic Toxicol. 2015;33(2):175-194.
8. Cone EJ, Lange R, Darwin WD. In vivo adulteration: excess fluid ingestion causes false-negative marijuana and cocaine urine test results. J Anal Toxicol. 1998;22(6):460-473.
9. Jaffee WB, Trucco E, Levy S, et al. Is this urine really negative? A systematic review of tampering methods in urine drug screening and testing. J Subst Abuse Treat. 2007;33(1):33-42.
10. Substance Abuse and Mental Health Services Administration. Mandatory guidelines for federal workplace drug testing programs. Federal Register. 2004;69:19644-19673.
The VA Is Not Just a Hospital, It Is a Community
The residency applicant walking with me through the lobby of the Albuquerque VA hospital on the way to an interview in my office asked me, “Are all VAs like this?” She was referring to the mariachi band that was entertaining veterans, families, and staff and the volunteer who was serving popcorn—for many years a regular feature at our VA. I responded, “No, they are all a little different, but yes, every VA is more than a hospital.” If she had asked a follow-up question, I would have added, “It is a community.”
Merriam-Webster’s Collegiate Dictionary has multiple definitions of community, and it is remarkable that most of them in one way or another describe the VA from the perspective of many veterans and even career employees:
- 1: a unified body of individuals: as
a: state, commonwealth
b: the people with common interests living in a particular area; broadly: the area itself (eg, the problems of a large community)
c: an interacting population of various kinds of individuals (as species) in a common location
d: a group of people with a common characteristic or interest in living together within a larger society (eg, a community of retired persons)
e: a group linked by a common policy
f: a body of persons or nations having a common history or common social, economic, and political interests (eg, the international community)
g: a body of persons of common and especially professional interests scattered through a larger society (eg, the academic community) - 2: society at large
- 3a: joint ownership or participation (community of goods)
b: common character: likeness (community of interests)
c: social activity: fellowship d: a social state or condition
d: a social state or condition
There is much talk in the media about the privatization of the VA. There are zealous critics who argue that privatization would improve access and quality of care. I won’t debate that here.
What I want to consider is what the VA represents and provides in addition to health care. Each VA hospital and clinic serves “a body of persons or nations having a common history or common social, economic, and political interests.” Sit in the waiting area of any VA emergency department or pharmacy and you will hear bonding conversations between veterans. Even when the conversation is critical of the VA, it is because it is their hospital. That “joint ownership or participation” means that every VA employee, including the nearly 30% who wore a uniform, is there for a single purpose: to help veterans. That is our sole mission and advocacy.
Back to my VA. We are “a group of people with a common characteristic or interest living together within a larger society.” Similar to most other large medical centers, this VA is like the army base where I was born and raised—a small village. The single most popular service at my VA is the barber shop where veterans can get a haircut and shave. We also have an extensive clothing closet where eligible veterans experiencing tough times can get decent clothes.
Our VA, like almost any military base, has a post exchange that sells a little bit of everything from snacks to small appliances. When I was an intern, I treated an elderly patient who was in a deep psychotic depression and was transferred with only the clothes he was wearing. After several electroconvulsive treatments, I could tell he was feeling better when he asked me to buy him underwear from the post exchange downstairs. What this patient needed, the community provided.
A VA medical center is “a group of people with a common characteristic or interest living together within a larger society.” Like any American small town, there is a chapel where twice a year chaplains hold a memorial service for families and staff of patients who recently passed away in our hospital. At other times, we gather as a family of various and no faiths to grieve over the loss of a beloved fellow employee who, all too often, died too soon under tragic circumstances.
Much of this interaction naturally takes place around food. In the morning, there is a line at the coffee shop in the lobby that matches any Starbucks in town. Our VA also has an award-winning canteen that knows the favorite dishes of veterans and employees. If you go for breakfast or lunch, you will almost always run in to someone you have not seen in a while and have a quick visit.
At our VA, you also can browse kiosks of handcrafted items and military memorabilia and support small veteran-owned businesses. In good weather you can buy fruits and vegetables at the veteran farmers market and hear the stories of backyard gardeners and small farmers.
There are special events for every season. In the summer, concerts are held in the gazebo and veteran and guest musicians play all types of music. We even have a VA all-star band made up of current and former employees. The band is a big hit with patients and staff alike.
Although many of these community resources are unique to my VA, the effort to provide a welcoming atmosphere for veterans and health care providers to come together as a community is not unusual. Most VA medical centers have developed cultural responses to the needs of the veterans who return often over the course of years to their VA community.
One definition that does not apply to the large, diverse veteran population or to their health care providers is “a unified body of individuals.” There are many veterans who never have and never will set foot inside a VA hospital for many complex reasons. But for those who do call it home and want to receive care under VA auspices, a private VA would result in a deep and abiding loss of community. This loss is especially true for the most disadvantaged and vulnerable for whom the VA provides a broad and compassionate safety net. Under that protective tent, unbefriended veterans may grow closer to employees who have cared for them for years than to their family. Patients with complex medical and psychiatric needs, such as spinal cord injuries, polytrauma, substance use disorders, and posttraumatic stress disorder find specialized services dedicated to them that would be difficult to rival anywhere in the private sector.What also is not appreciated amid the fierce and too often well-deserved criticisms of VA business processes is that all VA health care practitioners are “a group linked by a common policy.” Even if we do not always live up to them, the VA has higher regulatory and ethical standards than almost any civilian health care organization. Ensuring those standards are followed in a myriad of health care entities not under VA policy and federal regulation seems a shibboleth.
The residency applicant walking with me through the lobby of the Albuquerque VA hospital on the way to an interview in my office asked me, “Are all VAs like this?” She was referring to the mariachi band that was entertaining veterans, families, and staff and the volunteer who was serving popcorn—for many years a regular feature at our VA. I responded, “No, they are all a little different, but yes, every VA is more than a hospital.” If she had asked a follow-up question, I would have added, “It is a community.”
Merriam-Webster’s Collegiate Dictionary has multiple definitions of community, and it is remarkable that most of them in one way or another describe the VA from the perspective of many veterans and even career employees:
- 1: a unified body of individuals: as
a: state, commonwealth
b: the people with common interests living in a particular area; broadly: the area itself (eg, the problems of a large community)
c: an interacting population of various kinds of individuals (as species) in a common location
d: a group of people with a common characteristic or interest in living together within a larger society (eg, a community of retired persons)
e: a group linked by a common policy
f: a body of persons or nations having a common history or common social, economic, and political interests (eg, the international community)
g: a body of persons of common and especially professional interests scattered through a larger society (eg, the academic community) - 2: society at large
- 3a: joint ownership or participation (community of goods)
b: common character: likeness (community of interests)
c: social activity: fellowship d: a social state or condition
d: a social state or condition
There is much talk in the media about the privatization of the VA. There are zealous critics who argue that privatization would improve access and quality of care. I won’t debate that here.
What I want to consider is what the VA represents and provides in addition to health care. Each VA hospital and clinic serves “a body of persons or nations having a common history or common social, economic, and political interests.” Sit in the waiting area of any VA emergency department or pharmacy and you will hear bonding conversations between veterans. Even when the conversation is critical of the VA, it is because it is their hospital. That “joint ownership or participation” means that every VA employee, including the nearly 30% who wore a uniform, is there for a single purpose: to help veterans. That is our sole mission and advocacy.
Back to my VA. We are “a group of people with a common characteristic or interest living together within a larger society.” Similar to most other large medical centers, this VA is like the army base where I was born and raised—a small village. The single most popular service at my VA is the barber shop where veterans can get a haircut and shave. We also have an extensive clothing closet where eligible veterans experiencing tough times can get decent clothes.
Our VA, like almost any military base, has a post exchange that sells a little bit of everything from snacks to small appliances. When I was an intern, I treated an elderly patient who was in a deep psychotic depression and was transferred with only the clothes he was wearing. After several electroconvulsive treatments, I could tell he was feeling better when he asked me to buy him underwear from the post exchange downstairs. What this patient needed, the community provided.
A VA medical center is “a group of people with a common characteristic or interest living together within a larger society.” Like any American small town, there is a chapel where twice a year chaplains hold a memorial service for families and staff of patients who recently passed away in our hospital. At other times, we gather as a family of various and no faiths to grieve over the loss of a beloved fellow employee who, all too often, died too soon under tragic circumstances.
Much of this interaction naturally takes place around food. In the morning, there is a line at the coffee shop in the lobby that matches any Starbucks in town. Our VA also has an award-winning canteen that knows the favorite dishes of veterans and employees. If you go for breakfast or lunch, you will almost always run in to someone you have not seen in a while and have a quick visit.
At our VA, you also can browse kiosks of handcrafted items and military memorabilia and support small veteran-owned businesses. In good weather you can buy fruits and vegetables at the veteran farmers market and hear the stories of backyard gardeners and small farmers.
There are special events for every season. In the summer, concerts are held in the gazebo and veteran and guest musicians play all types of music. We even have a VA all-star band made up of current and former employees. The band is a big hit with patients and staff alike.
Although many of these community resources are unique to my VA, the effort to provide a welcoming atmosphere for veterans and health care providers to come together as a community is not unusual. Most VA medical centers have developed cultural responses to the needs of the veterans who return often over the course of years to their VA community.
One definition that does not apply to the large, diverse veteran population or to their health care providers is “a unified body of individuals.” There are many veterans who never have and never will set foot inside a VA hospital for many complex reasons. But for those who do call it home and want to receive care under VA auspices, a private VA would result in a deep and abiding loss of community. This loss is especially true for the most disadvantaged and vulnerable for whom the VA provides a broad and compassionate safety net. Under that protective tent, unbefriended veterans may grow closer to employees who have cared for them for years than to their family. Patients with complex medical and psychiatric needs, such as spinal cord injuries, polytrauma, substance use disorders, and posttraumatic stress disorder find specialized services dedicated to them that would be difficult to rival anywhere in the private sector.What also is not appreciated amid the fierce and too often well-deserved criticisms of VA business processes is that all VA health care practitioners are “a group linked by a common policy.” Even if we do not always live up to them, the VA has higher regulatory and ethical standards than almost any civilian health care organization. Ensuring those standards are followed in a myriad of health care entities not under VA policy and federal regulation seems a shibboleth.
The residency applicant walking with me through the lobby of the Albuquerque VA hospital on the way to an interview in my office asked me, “Are all VAs like this?” She was referring to the mariachi band that was entertaining veterans, families, and staff and the volunteer who was serving popcorn—for many years a regular feature at our VA. I responded, “No, they are all a little different, but yes, every VA is more than a hospital.” If she had asked a follow-up question, I would have added, “It is a community.”
Merriam-Webster’s Collegiate Dictionary has multiple definitions of community, and it is remarkable that most of them in one way or another describe the VA from the perspective of many veterans and even career employees:
- 1: a unified body of individuals: as
a: state, commonwealth
b: the people with common interests living in a particular area; broadly: the area itself (eg, the problems of a large community)
c: an interacting population of various kinds of individuals (as species) in a common location
d: a group of people with a common characteristic or interest in living together within a larger society (eg, a community of retired persons)
e: a group linked by a common policy
f: a body of persons or nations having a common history or common social, economic, and political interests (eg, the international community)
g: a body of persons of common and especially professional interests scattered through a larger society (eg, the academic community) - 2: society at large
- 3a: joint ownership or participation (community of goods)
b: common character: likeness (community of interests)
c: social activity: fellowship d: a social state or condition
d: a social state or condition
There is much talk in the media about the privatization of the VA. There are zealous critics who argue that privatization would improve access and quality of care. I won’t debate that here.
What I want to consider is what the VA represents and provides in addition to health care. Each VA hospital and clinic serves “a body of persons or nations having a common history or common social, economic, and political interests.” Sit in the waiting area of any VA emergency department or pharmacy and you will hear bonding conversations between veterans. Even when the conversation is critical of the VA, it is because it is their hospital. That “joint ownership or participation” means that every VA employee, including the nearly 30% who wore a uniform, is there for a single purpose: to help veterans. That is our sole mission and advocacy.
Back to my VA. We are “a group of people with a common characteristic or interest living together within a larger society.” Similar to most other large medical centers, this VA is like the army base where I was born and raised—a small village. The single most popular service at my VA is the barber shop where veterans can get a haircut and shave. We also have an extensive clothing closet where eligible veterans experiencing tough times can get decent clothes.
Our VA, like almost any military base, has a post exchange that sells a little bit of everything from snacks to small appliances. When I was an intern, I treated an elderly patient who was in a deep psychotic depression and was transferred with only the clothes he was wearing. After several electroconvulsive treatments, I could tell he was feeling better when he asked me to buy him underwear from the post exchange downstairs. What this patient needed, the community provided.
A VA medical center is “a group of people with a common characteristic or interest living together within a larger society.” Like any American small town, there is a chapel where twice a year chaplains hold a memorial service for families and staff of patients who recently passed away in our hospital. At other times, we gather as a family of various and no faiths to grieve over the loss of a beloved fellow employee who, all too often, died too soon under tragic circumstances.
Much of this interaction naturally takes place around food. In the morning, there is a line at the coffee shop in the lobby that matches any Starbucks in town. Our VA also has an award-winning canteen that knows the favorite dishes of veterans and employees. If you go for breakfast or lunch, you will almost always run in to someone you have not seen in a while and have a quick visit.
At our VA, you also can browse kiosks of handcrafted items and military memorabilia and support small veteran-owned businesses. In good weather you can buy fruits and vegetables at the veteran farmers market and hear the stories of backyard gardeners and small farmers.
There are special events for every season. In the summer, concerts are held in the gazebo and veteran and guest musicians play all types of music. We even have a VA all-star band made up of current and former employees. The band is a big hit with patients and staff alike.
Although many of these community resources are unique to my VA, the effort to provide a welcoming atmosphere for veterans and health care providers to come together as a community is not unusual. Most VA medical centers have developed cultural responses to the needs of the veterans who return often over the course of years to their VA community.
One definition that does not apply to the large, diverse veteran population or to their health care providers is “a unified body of individuals.” There are many veterans who never have and never will set foot inside a VA hospital for many complex reasons. But for those who do call it home and want to receive care under VA auspices, a private VA would result in a deep and abiding loss of community. This loss is especially true for the most disadvantaged and vulnerable for whom the VA provides a broad and compassionate safety net. Under that protective tent, unbefriended veterans may grow closer to employees who have cared for them for years than to their family. Patients with complex medical and psychiatric needs, such as spinal cord injuries, polytrauma, substance use disorders, and posttraumatic stress disorder find specialized services dedicated to them that would be difficult to rival anywhere in the private sector.What also is not appreciated amid the fierce and too often well-deserved criticisms of VA business processes is that all VA health care practitioners are “a group linked by a common policy.” Even if we do not always live up to them, the VA has higher regulatory and ethical standards than almost any civilian health care organization. Ensuring those standards are followed in a myriad of health care entities not under VA policy and federal regulation seems a shibboleth.
Don’t balk at using medical therapy to manage alcohol use disorder
There is ample evidence in the medical literature, as well as clinical experience, that patients seeking help for chemical dependency benefit from pharmacotherapy. It is common, however, for physicians, patients, and family to balk at the idea. Even within the psychiatry community, where there should be better understanding of substance use disorders, many practitioners hesitate to employ medications, especially for alcohol use disorder (AUD).
Efficacy for such FDA-approved medications has been demonstrated in well-designed, randomized controlled trials, but many trainees, and even experienced professionals, have never seen these medications used effectively and appropriately. Medication-assisted treatment (MAT) is not an alternative to biopsychosocial approaches but is an augmentation that can (1) help stabilize the patient until he (she) can be educated in relapse prevention skills and (2) allow the brain to rewire and heal until he regains impulse control.
Diverse presentations
Do you remember that patient who often arrived for appointments intoxicated, promising that he plans to cut down? How about the man you saw in the emergency department with an elevated blood alcohol level, who was constantly endorsing suicidal thoughts that subsided when he reached clinical sobriety? What about the college student who often was treated for alcohol poisoning after binge drinking on weekends, but who never considered this behavior problematic? And, how about the elderly woman who was evaluated for anxiety, but had been drinking 4 beers nightly for the past 30 years?
Despite the diverse presentations, these patients all have a chronic disease and we fail them when we do not apply evidence-based medicine to their treatment.
As psychiatrists, we encounter many patients with AUD as a primary or comorbid diagnosis. This is a global problem associated with significant human and financial cost. With 80% of American adolescents having reported using alcohol in the past year, the problem will continue to grow.1 Furthermore, a greater prevalence of AUD is noted in clinical populations undergoing psychiatric treatment.2 Ongoing alcohol abuse complicates the course of medical and psychiatric conditions and incites significant societal exclusion.
Pharmacotherapy is underutilized
Despite an increase in the use of psychotropic medications for treating psychiatric illness, pharmacotherapy for AUD is underutilized: only 3% of patients have received an FDA-approved treatment.2,3 Nearly one-third of adults are affected by AUD during their lifetime, yet only 20% seek help.3 Management today remains limited to episodic, brief inpatient detoxification and psychosocial therapy.
Recovery rates are highest when addiction treatment that monitors abstinence is continuous; yet, for the most part, alcohol addiction is treated in discrete episodes upon relapse. Although MAT is recommended by experts for “moderate” and “severe” substance use disorders, practitioners, in general, have demonstrated considerable resistance to using this modality as part of routine practice.4,5 This is regrettable: Regardless of terminology used to describe their condition, these people suffer a potentially fatal disease characterized by high post-treatment recidivism.
Neuroscience supports the brain disease model of addiction, with neuroplasticity changes being made during phases of drug use. Medications are shown to assist in preventing relapse while the brain is healing and normal emotional and decision-making capacities are being restored.6
Why hesitate to use pharmacotherapeutics?
There are diverse pharmacotherapeutic options that can be pursued for treating AUD with minimal disruption to home and work life. Alarmingly, many trainees have never prescribed or even considered such medications. Despite modest effect sizes in randomized controlled trials, efficacy has been demonstrated in reducing relapse rates and overall severity of drinking days.4,5 So, from where does the ambivalence of patients and providers about using these treatments to achieve lasting recovery stem?
Starting MAT certainly requires both parties to be in agreement. A patient might decline medication because of a fear of dependence or because he overestimates his ability to achieve remission on his own. There also may be financial barriers in a current alcohol treatment system that is traditionally non-medically oriented. Prescribers also fail to offer medications because of:
- lack of familiarity with available agents
- absence of guidelines for use
- disbelief that the condition is treatable.
Given that treatment often is based on a 12-step approach, such as Alcoholics Anonymous (AA), providers might hesitate to prescribe medication for an illness that is thought to be managed through psychosocial interventions, such as group and motivational therapy.
Therapeutic options
Choice of medication depends on the prescriber’s comfort level, reputation of the medication, potential side-effect profile, medical contraindications, and affordability; the most important consideration, however, should be the overall goals and expectations of the patient.
There are 4 FDA-approved medications for AUD (Table); many others are off-label. It is advisable to start with an FDA-approved medication such as disulfiram for the motivated patient who has a collaborator and desires complete abstinence; naltrexone for a patient who wants to cut down on intake (a long-acting formulation can be used for poorly adherent patients); and acamprosate for a patient with at least some established sobriety who needs help with post-withdrawal sleep disturbances.
With regard to off-label medications, topiramate has the highest evidence for efficacy. Gabapentin can augment naltrexone and also helps with sleep, anxiety, withdrawal, and cravings.4,5
Psychosocial interventions
Medications are just 1 tool in recovery; patients should be engaged in a program of counseling. Encourage attendance at AA meetings. An up-and-coming concept is the use of smartphone applications to prevent relapse (or even induce remission); apps that provide an accurate blood alcohol tracking systems and integrated psychosocial therapies are in the pipeline. The novel Reddit online forum r/StopDrinking is a 24-hour peer-support community that relies on fellowship, accountability, monitoring, and anonymity; the forum can compete with motivational interviewing for efficacy in increasing abstinence and preventing relapse.
The authors would like to thank Thomas M. Penders, MS, MD, Medical Director for Consultation-Liaison Psychiatry at Cape Cod Healthcare, Hyannis, Massachusetts, and Affiliate Professor at East Carolina University, Greenville, North Carolina, for all his guidance, support, and mentorship.
In July 2017, Dr. Stanciu will be entering PGY-5 Addiction Psychiatry Fellowship, Geisel School of Medicine, Dartmouth-Hitchcock Medical Center, Lebanon, New Hampshire, and Dr. Gnanasegaram has accepted a Clinical Instructor position, Department of Psychiatric Medicine, Dartmouth-Hitchcock, New Hampshire.
1. Johnson L, O’Malley P, Miech RA, et al. Monitoring the Future national survey results on drug use, 1975-2015: overview, key findings on adolescent drug use. http://www.monitoringthefuture.org/pubs/monographs/mtf-overview2015.pdf. Published February 2016. Accessed January 20, 2016.
2. Substance Abuse and Mental Health Services Administration. Results from the 2013 national survey on drug use and health: mental health findings, NSDUH Series H-49, HHS Publication No. (SMA) 14-4887. Rockville, MD: Substance Abuse and Mental Health Services Administration; 2014.
3. Grant BF, Goldstein RB, Saha TD, et al. Epidemiology of DSM-5 alcohol use disorder: results from the National Epidemiological Survey on Alcohol and Related Conditions III. JAMA Psychiatry. 2015;72(8):757-766.
4. Robinson S, Meeks TW, Geniza C. Medication for alcohol use disorder: which agents work best. Current Psychiatry. 2014;13(1):22-29.
5. Substance Abuse and Mental Health Services Administration and National Institute on Alcohol Abuse and Alcoholism. Medication for the treatment of alcohol use disorder: a brief guide. HHS Publication No. (SMA) 15-4907. Rockville, MD: Substance Abuse and Mental Health Services Administration; 2015.
6. Volkow ND, Koob GF, McLellan AT. Neurobiological advances from the brain disease model of addiction. N Engl J Med. 2016;374(4):363-371.
There is ample evidence in the medical literature, as well as clinical experience, that patients seeking help for chemical dependency benefit from pharmacotherapy. It is common, however, for physicians, patients, and family to balk at the idea. Even within the psychiatry community, where there should be better understanding of substance use disorders, many practitioners hesitate to employ medications, especially for alcohol use disorder (AUD).
Efficacy for such FDA-approved medications has been demonstrated in well-designed, randomized controlled trials, but many trainees, and even experienced professionals, have never seen these medications used effectively and appropriately. Medication-assisted treatment (MAT) is not an alternative to biopsychosocial approaches but is an augmentation that can (1) help stabilize the patient until he (she) can be educated in relapse prevention skills and (2) allow the brain to rewire and heal until he regains impulse control.
Diverse presentations
Do you remember that patient who often arrived for appointments intoxicated, promising that he plans to cut down? How about the man you saw in the emergency department with an elevated blood alcohol level, who was constantly endorsing suicidal thoughts that subsided when he reached clinical sobriety? What about the college student who often was treated for alcohol poisoning after binge drinking on weekends, but who never considered this behavior problematic? And, how about the elderly woman who was evaluated for anxiety, but had been drinking 4 beers nightly for the past 30 years?
Despite the diverse presentations, these patients all have a chronic disease and we fail them when we do not apply evidence-based medicine to their treatment.
As psychiatrists, we encounter many patients with AUD as a primary or comorbid diagnosis. This is a global problem associated with significant human and financial cost. With 80% of American adolescents having reported using alcohol in the past year, the problem will continue to grow.1 Furthermore, a greater prevalence of AUD is noted in clinical populations undergoing psychiatric treatment.2 Ongoing alcohol abuse complicates the course of medical and psychiatric conditions and incites significant societal exclusion.
Pharmacotherapy is underutilized
Despite an increase in the use of psychotropic medications for treating psychiatric illness, pharmacotherapy for AUD is underutilized: only 3% of patients have received an FDA-approved treatment.2,3 Nearly one-third of adults are affected by AUD during their lifetime, yet only 20% seek help.3 Management today remains limited to episodic, brief inpatient detoxification and psychosocial therapy.
Recovery rates are highest when addiction treatment that monitors abstinence is continuous; yet, for the most part, alcohol addiction is treated in discrete episodes upon relapse. Although MAT is recommended by experts for “moderate” and “severe” substance use disorders, practitioners, in general, have demonstrated considerable resistance to using this modality as part of routine practice.4,5 This is regrettable: Regardless of terminology used to describe their condition, these people suffer a potentially fatal disease characterized by high post-treatment recidivism.
Neuroscience supports the brain disease model of addiction, with neuroplasticity changes being made during phases of drug use. Medications are shown to assist in preventing relapse while the brain is healing and normal emotional and decision-making capacities are being restored.6
Why hesitate to use pharmacotherapeutics?
There are diverse pharmacotherapeutic options that can be pursued for treating AUD with minimal disruption to home and work life. Alarmingly, many trainees have never prescribed or even considered such medications. Despite modest effect sizes in randomized controlled trials, efficacy has been demonstrated in reducing relapse rates and overall severity of drinking days.4,5 So, from where does the ambivalence of patients and providers about using these treatments to achieve lasting recovery stem?
Starting MAT certainly requires both parties to be in agreement. A patient might decline medication because of a fear of dependence or because he overestimates his ability to achieve remission on his own. There also may be financial barriers in a current alcohol treatment system that is traditionally non-medically oriented. Prescribers also fail to offer medications because of:
- lack of familiarity with available agents
- absence of guidelines for use
- disbelief that the condition is treatable.
Given that treatment often is based on a 12-step approach, such as Alcoholics Anonymous (AA), providers might hesitate to prescribe medication for an illness that is thought to be managed through psychosocial interventions, such as group and motivational therapy.
Therapeutic options
Choice of medication depends on the prescriber’s comfort level, reputation of the medication, potential side-effect profile, medical contraindications, and affordability; the most important consideration, however, should be the overall goals and expectations of the patient.
There are 4 FDA-approved medications for AUD (Table); many others are off-label. It is advisable to start with an FDA-approved medication such as disulfiram for the motivated patient who has a collaborator and desires complete abstinence; naltrexone for a patient who wants to cut down on intake (a long-acting formulation can be used for poorly adherent patients); and acamprosate for a patient with at least some established sobriety who needs help with post-withdrawal sleep disturbances.
With regard to off-label medications, topiramate has the highest evidence for efficacy. Gabapentin can augment naltrexone and also helps with sleep, anxiety, withdrawal, and cravings.4,5
Psychosocial interventions
Medications are just 1 tool in recovery; patients should be engaged in a program of counseling. Encourage attendance at AA meetings. An up-and-coming concept is the use of smartphone applications to prevent relapse (or even induce remission); apps that provide an accurate blood alcohol tracking systems and integrated psychosocial therapies are in the pipeline. The novel Reddit online forum r/StopDrinking is a 24-hour peer-support community that relies on fellowship, accountability, monitoring, and anonymity; the forum can compete with motivational interviewing for efficacy in increasing abstinence and preventing relapse.
The authors would like to thank Thomas M. Penders, MS, MD, Medical Director for Consultation-Liaison Psychiatry at Cape Cod Healthcare, Hyannis, Massachusetts, and Affiliate Professor at East Carolina University, Greenville, North Carolina, for all his guidance, support, and mentorship.
In July 2017, Dr. Stanciu will be entering PGY-5 Addiction Psychiatry Fellowship, Geisel School of Medicine, Dartmouth-Hitchcock Medical Center, Lebanon, New Hampshire, and Dr. Gnanasegaram has accepted a Clinical Instructor position, Department of Psychiatric Medicine, Dartmouth-Hitchcock, New Hampshire.
There is ample evidence in the medical literature, as well as clinical experience, that patients seeking help for chemical dependency benefit from pharmacotherapy. It is common, however, for physicians, patients, and family to balk at the idea. Even within the psychiatry community, where there should be better understanding of substance use disorders, many practitioners hesitate to employ medications, especially for alcohol use disorder (AUD).
Efficacy for such FDA-approved medications has been demonstrated in well-designed, randomized controlled trials, but many trainees, and even experienced professionals, have never seen these medications used effectively and appropriately. Medication-assisted treatment (MAT) is not an alternative to biopsychosocial approaches but is an augmentation that can (1) help stabilize the patient until he (she) can be educated in relapse prevention skills and (2) allow the brain to rewire and heal until he regains impulse control.
Diverse presentations
Do you remember that patient who often arrived for appointments intoxicated, promising that he plans to cut down? How about the man you saw in the emergency department with an elevated blood alcohol level, who was constantly endorsing suicidal thoughts that subsided when he reached clinical sobriety? What about the college student who often was treated for alcohol poisoning after binge drinking on weekends, but who never considered this behavior problematic? And, how about the elderly woman who was evaluated for anxiety, but had been drinking 4 beers nightly for the past 30 years?
Despite the diverse presentations, these patients all have a chronic disease and we fail them when we do not apply evidence-based medicine to their treatment.
As psychiatrists, we encounter many patients with AUD as a primary or comorbid diagnosis. This is a global problem associated with significant human and financial cost. With 80% of American adolescents having reported using alcohol in the past year, the problem will continue to grow.1 Furthermore, a greater prevalence of AUD is noted in clinical populations undergoing psychiatric treatment.2 Ongoing alcohol abuse complicates the course of medical and psychiatric conditions and incites significant societal exclusion.
Pharmacotherapy is underutilized
Despite an increase in the use of psychotropic medications for treating psychiatric illness, pharmacotherapy for AUD is underutilized: only 3% of patients have received an FDA-approved treatment.2,3 Nearly one-third of adults are affected by AUD during their lifetime, yet only 20% seek help.3 Management today remains limited to episodic, brief inpatient detoxification and psychosocial therapy.
Recovery rates are highest when addiction treatment that monitors abstinence is continuous; yet, for the most part, alcohol addiction is treated in discrete episodes upon relapse. Although MAT is recommended by experts for “moderate” and “severe” substance use disorders, practitioners, in general, have demonstrated considerable resistance to using this modality as part of routine practice.4,5 This is regrettable: Regardless of terminology used to describe their condition, these people suffer a potentially fatal disease characterized by high post-treatment recidivism.
Neuroscience supports the brain disease model of addiction, with neuroplasticity changes being made during phases of drug use. Medications are shown to assist in preventing relapse while the brain is healing and normal emotional and decision-making capacities are being restored.6
Why hesitate to use pharmacotherapeutics?
There are diverse pharmacotherapeutic options that can be pursued for treating AUD with minimal disruption to home and work life. Alarmingly, many trainees have never prescribed or even considered such medications. Despite modest effect sizes in randomized controlled trials, efficacy has been demonstrated in reducing relapse rates and overall severity of drinking days.4,5 So, from where does the ambivalence of patients and providers about using these treatments to achieve lasting recovery stem?
Starting MAT certainly requires both parties to be in agreement. A patient might decline medication because of a fear of dependence or because he overestimates his ability to achieve remission on his own. There also may be financial barriers in a current alcohol treatment system that is traditionally non-medically oriented. Prescribers also fail to offer medications because of:
- lack of familiarity with available agents
- absence of guidelines for use
- disbelief that the condition is treatable.
Given that treatment often is based on a 12-step approach, such as Alcoholics Anonymous (AA), providers might hesitate to prescribe medication for an illness that is thought to be managed through psychosocial interventions, such as group and motivational therapy.
Therapeutic options
Choice of medication depends on the prescriber’s comfort level, reputation of the medication, potential side-effect profile, medical contraindications, and affordability; the most important consideration, however, should be the overall goals and expectations of the patient.
There are 4 FDA-approved medications for AUD (Table); many others are off-label. It is advisable to start with an FDA-approved medication such as disulfiram for the motivated patient who has a collaborator and desires complete abstinence; naltrexone for a patient who wants to cut down on intake (a long-acting formulation can be used for poorly adherent patients); and acamprosate for a patient with at least some established sobriety who needs help with post-withdrawal sleep disturbances.
With regard to off-label medications, topiramate has the highest evidence for efficacy. Gabapentin can augment naltrexone and also helps with sleep, anxiety, withdrawal, and cravings.4,5
Psychosocial interventions
Medications are just 1 tool in recovery; patients should be engaged in a program of counseling. Encourage attendance at AA meetings. An up-and-coming concept is the use of smartphone applications to prevent relapse (or even induce remission); apps that provide an accurate blood alcohol tracking systems and integrated psychosocial therapies are in the pipeline. The novel Reddit online forum r/StopDrinking is a 24-hour peer-support community that relies on fellowship, accountability, monitoring, and anonymity; the forum can compete with motivational interviewing for efficacy in increasing abstinence and preventing relapse.
The authors would like to thank Thomas M. Penders, MS, MD, Medical Director for Consultation-Liaison Psychiatry at Cape Cod Healthcare, Hyannis, Massachusetts, and Affiliate Professor at East Carolina University, Greenville, North Carolina, for all his guidance, support, and mentorship.
In July 2017, Dr. Stanciu will be entering PGY-5 Addiction Psychiatry Fellowship, Geisel School of Medicine, Dartmouth-Hitchcock Medical Center, Lebanon, New Hampshire, and Dr. Gnanasegaram has accepted a Clinical Instructor position, Department of Psychiatric Medicine, Dartmouth-Hitchcock, New Hampshire.
1. Johnson L, O’Malley P, Miech RA, et al. Monitoring the Future national survey results on drug use, 1975-2015: overview, key findings on adolescent drug use. http://www.monitoringthefuture.org/pubs/monographs/mtf-overview2015.pdf. Published February 2016. Accessed January 20, 2016.
2. Substance Abuse and Mental Health Services Administration. Results from the 2013 national survey on drug use and health: mental health findings, NSDUH Series H-49, HHS Publication No. (SMA) 14-4887. Rockville, MD: Substance Abuse and Mental Health Services Administration; 2014.
3. Grant BF, Goldstein RB, Saha TD, et al. Epidemiology of DSM-5 alcohol use disorder: results from the National Epidemiological Survey on Alcohol and Related Conditions III. JAMA Psychiatry. 2015;72(8):757-766.
4. Robinson S, Meeks TW, Geniza C. Medication for alcohol use disorder: which agents work best. Current Psychiatry. 2014;13(1):22-29.
5. Substance Abuse and Mental Health Services Administration and National Institute on Alcohol Abuse and Alcoholism. Medication for the treatment of alcohol use disorder: a brief guide. HHS Publication No. (SMA) 15-4907. Rockville, MD: Substance Abuse and Mental Health Services Administration; 2015.
6. Volkow ND, Koob GF, McLellan AT. Neurobiological advances from the brain disease model of addiction. N Engl J Med. 2016;374(4):363-371.
1. Johnson L, O’Malley P, Miech RA, et al. Monitoring the Future national survey results on drug use, 1975-2015: overview, key findings on adolescent drug use. http://www.monitoringthefuture.org/pubs/monographs/mtf-overview2015.pdf. Published February 2016. Accessed January 20, 2016.
2. Substance Abuse and Mental Health Services Administration. Results from the 2013 national survey on drug use and health: mental health findings, NSDUH Series H-49, HHS Publication No. (SMA) 14-4887. Rockville, MD: Substance Abuse and Mental Health Services Administration; 2014.
3. Grant BF, Goldstein RB, Saha TD, et al. Epidemiology of DSM-5 alcohol use disorder: results from the National Epidemiological Survey on Alcohol and Related Conditions III. JAMA Psychiatry. 2015;72(8):757-766.
4. Robinson S, Meeks TW, Geniza C. Medication for alcohol use disorder: which agents work best. Current Psychiatry. 2014;13(1):22-29.
5. Substance Abuse and Mental Health Services Administration and National Institute on Alcohol Abuse and Alcoholism. Medication for the treatment of alcohol use disorder: a brief guide. HHS Publication No. (SMA) 15-4907. Rockville, MD: Substance Abuse and Mental Health Services Administration; 2015.
6. Volkow ND, Koob GF, McLellan AT. Neurobiological advances from the brain disease model of addiction. N Engl J Med. 2016;374(4):363-371.
Antidepressant-associated purpura: A rare familial case presentation
Selective serotonin reuptake inhibitors (SSRIs) and serotonin-norepinephrine reuptake inhibitors (SNRIs) have been a welcome addition to the armamentarium for treating depressive disorders, neuropathic pain, and anxiety disorders. Despite the more favorable side-effect profile compared with tricyclic antidepressants and monoamine oxidase inhibitors, these serotonergic agents have been associated with bleeding disorders, purpura, thrombocytopenia, and, in extreme cases, death.1-4
We describe a case of purpura associated with different classes of antidepressants, including the non-serotonergic agent bupropion, as well as a family history of similar adverse effects to antidepressants.
CASE Purpura resolves when drug is stopped
Ms. R, age 70, presents with major depressive disorder and fibromyalgia and is receiving duloxetine, 20 mg/d, which is gradually increased to 60 mg. She also has a history of chronic obstructive pulmonary disease (COPD), for which she is taking albuterol and a steroid inhaler. Ms. R responds well to treatment; however, she develops blue–purple purpura on her arms each measuring 1 to 2 inches. Laboratory test results including platelet count and prothrombin time/international normalized ratio are within normal ranges. Duloxetine is stopped, and purpura resolves in 1 to 2 weeks. To avoid serotonergic antidepressants, Ms. R receives bupropion XL, 150 mg; however, similar purpura develops, then resolves when the medication is discontinued. She is lost to follow up for approximately 6 months, but returns requesting a rechallenge with duloxetine for her depression, which has worsened. Duloxetine is restarted with similar results and is then discontinued. Because she has developed neuropathy, Ms. R is started on nortriptyline, 25 mg/d, increased to 50 mg/d, but purpura develops again, which resolves when medication is discontinued. Ms. R’s daughter reports she also developed a similar reaction with several antidepressants, which resolved with medication discontinuation.
Bleeding risk with antidepressants
The role of serotonin reuptake inhibitors (SRIs) in inducing bleeding has emerged as a safety concern,5,6 which have been documented in case reports.7-11 Mechanisms of action that have been thought to affect platelet aggregation include:
- depletion of serotonin in platelets
- increase in capillary fragility
- modification of platelet plug formation
- responsiveness of peptide-induced activation of platelets through stimulation of the thrombin receptor.7,8,12,13
The severity of bleeding varies with patient-related factors, such as a history of gastritis, peptic ulcer disease, and heavy bleeding during menses; use of gastrotoxic drugs, particularly nonsteroidal anti-inflammatory drugs (NSAIDs), also have been shown to increase this risk.14,15 For patients taking SRIs and gastrotoxic drugs (eg, NSAIDs), use of acid-suppressing agents have been shown to limit the risk of bleeding.16
Studies evaluating relative bleeding risks among classes of antidepressants have not shown increased risk with tricyclic antidepressants compared with SSRIs.17 Adenosine triphosphate (ATP), adenosine diphosphate (ADP), and adenosine monophosphate (AMP) are signaling molecules in the vascular system and are important in the thromboregulatory system. Studies in rats reported significant inhibition of ATP, ADP, and AMP hydrolysis with chronic treatment with fluoxetine and nortriptyline, and suggested that both medications changed the nucleotide catabolism, which means that homeostasis of the vascular system can be altered by antidepressant treatments.18 This is one possible pathway in the role these medications play in the etiology of dysregulation of the thromboregulatory system.
We did not anticipate that our patient would develop similar purpura with bupropion because the bleeding risk associated with antidepressants has been attributed to the effect of serotonin on platelets. Studies observing the effect of SSRIs, SNRIs, and bupropion on platelets and bleeding have not shown significant risk with bupropion.19 Bleeding associated with bupropion is atypical and needs to be further studied. Although this medication is centrally selective in its action on dopamine receptors, it might have possible peripheral effect on other neurotransmitters, including serotonin.
Ms. R had no personal or family history of purpura or a bleeding disorder. Significant improvement in her physical signs after discontinuing medications and recurrence of pupura with rechallenge indicate that this reaction was triggered by 3 different classes of antidepressants. Family history of similar reaction further suggests a genetic predisposition to platelet dysfunction to antidepressant treatment in a select group of patients.
Limitations include the possibility of senile purpura, which cannot be ruled out despite strong indications that antidepressants were the cause. The possibility of drug interactions needs be considered as well. Ms. R was taking albuterol and a steroid inhaler for her COPD at the time of the initial medication trials, which did not interact with duloxetine or bupropion. During the trials with duloxetine and then nortriptyline, she was taking acetaminophen/hydrocodone in addition to her inhalers, and no significant interactions with the antidepressants were identified. Interactions with unreported or over-the-counter medications or supplements are a possibility.
Before prescribing an antidepressant, we suggest taking a careful history including a family history of bleeding disorders and adverse effects of antidepressants, especially in patients who have risk factors (eg, concomitant use of gastrotoxic medications). Use of gastric acid-suppressing medications could be considered if antidepressants are used. Further investigations into the incidence, risk factors, mechanism of action, and treatment of this adverse effect are indicated.
Drug Brand Names
Acetaminophen/hydrocodone • Lorcet, Norco, Vicodin
Albuterol • Proventil
Bupropion • Wellbutrin
Duloxetine • Cymbalta
Nortriptyline • Pamelor, Aventyl
1. Cymbalta [package insert]. Indianapolis, IN: Eli Lilly and Company; 2014.
2. Amitriptyline. Medscape. http://reference.medscape.com/drug/levate-amitriptyline-342936. Accessed December 19, 2016.
3. Wellbutrin [package insert]. Triangle Park, NC: GlaxoSmithKline; 2004.
4. Balhara Y, Sagar R, Varghese ST. Bleeding gums: duloxetine may be the cause. J Postgrad Med. 2007;53(1):44-45.
5. Paton C, Ferrier IN. SSRIs and gastrointestinal bleeding. BMJ. 2005;331(7516):529-530.
6. Turner MS, May DB, Arthur RR, et al. Clinical impact of selective serotonin reuptake inhibitors therapy with bleeding risks. J Intern Med. 2007;261(3):205-213.
7. Humphries JE, Wheby MS, VandenBerg SR. Fluoxetine and the bleeding time. Arch Pathol Lab Med. 1990;114(7):727-728.
8. Alderman CP, Moritz CK, Ben-Tovim DI. Abnormal platelet aggregation associated with fluoxetine therapy. Ann Pharmacother. 1992;26(12):1517-1519.
9. Calhoun JW, Calhoun DD. Prolonged bleeding time in a patient treated with sertraline. Am J Psychiatry. 1996;153(3):443.
10. Ottervanger JP, Stricker BH, Huls J, et al. Bleeding attributed to the intake of paroxetine. Am J Psychiatry. 1994;151(5):781-782.
11. de Abajo FJ, Rodríguez LA, Montero D, et al. Association between selective serotonin reuptake inhibitors and upper gastrointestinal bleeding: population based case-control study. BMJ. 1999;319(7217):1106-1109.
12. Nelva A, Guy C, Tardy-Poncet B, et al. Hemorrhagic syndromes related to selective serotonin reuptake inhibitor (SSRI) antidepressants: seven case reports and review of the literature [in French]. Rev Med Interne. 2000;21(2):152-160.
13. de Abajo FJ, Montero D, Rodríguez LA, et al. Antidepressants and risk of upper gastrointestinal bleeding. Basic Clin Pharmacol Toxicol. 2006;98(3):304-310.
14. Tata LJ, Fortun PJ, Hubbard RB, et al. Does concurrent prescription of selective serotonin reuptake inhibitors and non-steroidal anti-inflammatory drugs substantially increase the risk of upper gastrointestinal bleeding? Aliment Pharmacol Ther. 2005;22(3):175-181.
15. Yuan Y, Tsoi K, Hunt RH. Selective serotonin reuptake inhibitors and risk of upper GI bleeding: confusion or confounding? Am J Med. 2006;119(9):719-727.
16. de Abajo FJ, García-Rodríguez LA. Risk of upper gastrointestinal tract bleeding associated with selective serotonin reuptake inhibitors and venlafaxine therapy: interaction with nonsteroidal anti-inflammatory drugs and effect of acid-suppressing agents. Arch Gen Psychiatry. 2008;65(7):795-803.
17. Barbui C, Andretta M, De Vitis G, et al. Antidepressant drug prescription and risk of abnormal bleeding: a case-control study. J Clin Pharmacol. 2009;29(1):33-38.
18. Pedrazza EL, Senger MR, Rico EP, et al. Fluoxetine and nortriptyline affect NTPDase and 5’-nucleotidase activities in rat blood serum. Life Sci. 2007;81(15):1205-1210.
19. Song HR, Jung YE, Wang HR, et al. Platelet count alterations associated with escitalopram, venlafaxine and bupropion in depressive patients. Psychiatry Clin Neurosci. 2012;66(5):457-459.
Selective serotonin reuptake inhibitors (SSRIs) and serotonin-norepinephrine reuptake inhibitors (SNRIs) have been a welcome addition to the armamentarium for treating depressive disorders, neuropathic pain, and anxiety disorders. Despite the more favorable side-effect profile compared with tricyclic antidepressants and monoamine oxidase inhibitors, these serotonergic agents have been associated with bleeding disorders, purpura, thrombocytopenia, and, in extreme cases, death.1-4
We describe a case of purpura associated with different classes of antidepressants, including the non-serotonergic agent bupropion, as well as a family history of similar adverse effects to antidepressants.
CASE Purpura resolves when drug is stopped
Ms. R, age 70, presents with major depressive disorder and fibromyalgia and is receiving duloxetine, 20 mg/d, which is gradually increased to 60 mg. She also has a history of chronic obstructive pulmonary disease (COPD), for which she is taking albuterol and a steroid inhaler. Ms. R responds well to treatment; however, she develops blue–purple purpura on her arms each measuring 1 to 2 inches. Laboratory test results including platelet count and prothrombin time/international normalized ratio are within normal ranges. Duloxetine is stopped, and purpura resolves in 1 to 2 weeks. To avoid serotonergic antidepressants, Ms. R receives bupropion XL, 150 mg; however, similar purpura develops, then resolves when the medication is discontinued. She is lost to follow up for approximately 6 months, but returns requesting a rechallenge with duloxetine for her depression, which has worsened. Duloxetine is restarted with similar results and is then discontinued. Because she has developed neuropathy, Ms. R is started on nortriptyline, 25 mg/d, increased to 50 mg/d, but purpura develops again, which resolves when medication is discontinued. Ms. R’s daughter reports she also developed a similar reaction with several antidepressants, which resolved with medication discontinuation.
Bleeding risk with antidepressants
The role of serotonin reuptake inhibitors (SRIs) in inducing bleeding has emerged as a safety concern,5,6 which have been documented in case reports.7-11 Mechanisms of action that have been thought to affect platelet aggregation include:
- depletion of serotonin in platelets
- increase in capillary fragility
- modification of platelet plug formation
- responsiveness of peptide-induced activation of platelets through stimulation of the thrombin receptor.7,8,12,13
The severity of bleeding varies with patient-related factors, such as a history of gastritis, peptic ulcer disease, and heavy bleeding during menses; use of gastrotoxic drugs, particularly nonsteroidal anti-inflammatory drugs (NSAIDs), also have been shown to increase this risk.14,15 For patients taking SRIs and gastrotoxic drugs (eg, NSAIDs), use of acid-suppressing agents have been shown to limit the risk of bleeding.16
Studies evaluating relative bleeding risks among classes of antidepressants have not shown increased risk with tricyclic antidepressants compared with SSRIs.17 Adenosine triphosphate (ATP), adenosine diphosphate (ADP), and adenosine monophosphate (AMP) are signaling molecules in the vascular system and are important in the thromboregulatory system. Studies in rats reported significant inhibition of ATP, ADP, and AMP hydrolysis with chronic treatment with fluoxetine and nortriptyline, and suggested that both medications changed the nucleotide catabolism, which means that homeostasis of the vascular system can be altered by antidepressant treatments.18 This is one possible pathway in the role these medications play in the etiology of dysregulation of the thromboregulatory system.
We did not anticipate that our patient would develop similar purpura with bupropion because the bleeding risk associated with antidepressants has been attributed to the effect of serotonin on platelets. Studies observing the effect of SSRIs, SNRIs, and bupropion on platelets and bleeding have not shown significant risk with bupropion.19 Bleeding associated with bupropion is atypical and needs to be further studied. Although this medication is centrally selective in its action on dopamine receptors, it might have possible peripheral effect on other neurotransmitters, including serotonin.
Ms. R had no personal or family history of purpura or a bleeding disorder. Significant improvement in her physical signs after discontinuing medications and recurrence of pupura with rechallenge indicate that this reaction was triggered by 3 different classes of antidepressants. Family history of similar reaction further suggests a genetic predisposition to platelet dysfunction to antidepressant treatment in a select group of patients.
Limitations include the possibility of senile purpura, which cannot be ruled out despite strong indications that antidepressants were the cause. The possibility of drug interactions needs be considered as well. Ms. R was taking albuterol and a steroid inhaler for her COPD at the time of the initial medication trials, which did not interact with duloxetine or bupropion. During the trials with duloxetine and then nortriptyline, she was taking acetaminophen/hydrocodone in addition to her inhalers, and no significant interactions with the antidepressants were identified. Interactions with unreported or over-the-counter medications or supplements are a possibility.
Before prescribing an antidepressant, we suggest taking a careful history including a family history of bleeding disorders and adverse effects of antidepressants, especially in patients who have risk factors (eg, concomitant use of gastrotoxic medications). Use of gastric acid-suppressing medications could be considered if antidepressants are used. Further investigations into the incidence, risk factors, mechanism of action, and treatment of this adverse effect are indicated.
Drug Brand Names
Acetaminophen/hydrocodone • Lorcet, Norco, Vicodin
Albuterol • Proventil
Bupropion • Wellbutrin
Duloxetine • Cymbalta
Nortriptyline • Pamelor, Aventyl
Selective serotonin reuptake inhibitors (SSRIs) and serotonin-norepinephrine reuptake inhibitors (SNRIs) have been a welcome addition to the armamentarium for treating depressive disorders, neuropathic pain, and anxiety disorders. Despite the more favorable side-effect profile compared with tricyclic antidepressants and monoamine oxidase inhibitors, these serotonergic agents have been associated with bleeding disorders, purpura, thrombocytopenia, and, in extreme cases, death.1-4
We describe a case of purpura associated with different classes of antidepressants, including the non-serotonergic agent bupropion, as well as a family history of similar adverse effects to antidepressants.
CASE Purpura resolves when drug is stopped
Ms. R, age 70, presents with major depressive disorder and fibromyalgia and is receiving duloxetine, 20 mg/d, which is gradually increased to 60 mg. She also has a history of chronic obstructive pulmonary disease (COPD), for which she is taking albuterol and a steroid inhaler. Ms. R responds well to treatment; however, she develops blue–purple purpura on her arms each measuring 1 to 2 inches. Laboratory test results including platelet count and prothrombin time/international normalized ratio are within normal ranges. Duloxetine is stopped, and purpura resolves in 1 to 2 weeks. To avoid serotonergic antidepressants, Ms. R receives bupropion XL, 150 mg; however, similar purpura develops, then resolves when the medication is discontinued. She is lost to follow up for approximately 6 months, but returns requesting a rechallenge with duloxetine for her depression, which has worsened. Duloxetine is restarted with similar results and is then discontinued. Because she has developed neuropathy, Ms. R is started on nortriptyline, 25 mg/d, increased to 50 mg/d, but purpura develops again, which resolves when medication is discontinued. Ms. R’s daughter reports she also developed a similar reaction with several antidepressants, which resolved with medication discontinuation.
Bleeding risk with antidepressants
The role of serotonin reuptake inhibitors (SRIs) in inducing bleeding has emerged as a safety concern,5,6 which have been documented in case reports.7-11 Mechanisms of action that have been thought to affect platelet aggregation include:
- depletion of serotonin in platelets
- increase in capillary fragility
- modification of platelet plug formation
- responsiveness of peptide-induced activation of platelets through stimulation of the thrombin receptor.7,8,12,13
The severity of bleeding varies with patient-related factors, such as a history of gastritis, peptic ulcer disease, and heavy bleeding during menses; use of gastrotoxic drugs, particularly nonsteroidal anti-inflammatory drugs (NSAIDs), also have been shown to increase this risk.14,15 For patients taking SRIs and gastrotoxic drugs (eg, NSAIDs), use of acid-suppressing agents have been shown to limit the risk of bleeding.16
Studies evaluating relative bleeding risks among classes of antidepressants have not shown increased risk with tricyclic antidepressants compared with SSRIs.17 Adenosine triphosphate (ATP), adenosine diphosphate (ADP), and adenosine monophosphate (AMP) are signaling molecules in the vascular system and are important in the thromboregulatory system. Studies in rats reported significant inhibition of ATP, ADP, and AMP hydrolysis with chronic treatment with fluoxetine and nortriptyline, and suggested that both medications changed the nucleotide catabolism, which means that homeostasis of the vascular system can be altered by antidepressant treatments.18 This is one possible pathway in the role these medications play in the etiology of dysregulation of the thromboregulatory system.
We did not anticipate that our patient would develop similar purpura with bupropion because the bleeding risk associated with antidepressants has been attributed to the effect of serotonin on platelets. Studies observing the effect of SSRIs, SNRIs, and bupropion on platelets and bleeding have not shown significant risk with bupropion.19 Bleeding associated with bupropion is atypical and needs to be further studied. Although this medication is centrally selective in its action on dopamine receptors, it might have possible peripheral effect on other neurotransmitters, including serotonin.
Ms. R had no personal or family history of purpura or a bleeding disorder. Significant improvement in her physical signs after discontinuing medications and recurrence of pupura with rechallenge indicate that this reaction was triggered by 3 different classes of antidepressants. Family history of similar reaction further suggests a genetic predisposition to platelet dysfunction to antidepressant treatment in a select group of patients.
Limitations include the possibility of senile purpura, which cannot be ruled out despite strong indications that antidepressants were the cause. The possibility of drug interactions needs be considered as well. Ms. R was taking albuterol and a steroid inhaler for her COPD at the time of the initial medication trials, which did not interact with duloxetine or bupropion. During the trials with duloxetine and then nortriptyline, she was taking acetaminophen/hydrocodone in addition to her inhalers, and no significant interactions with the antidepressants were identified. Interactions with unreported or over-the-counter medications or supplements are a possibility.
Before prescribing an antidepressant, we suggest taking a careful history including a family history of bleeding disorders and adverse effects of antidepressants, especially in patients who have risk factors (eg, concomitant use of gastrotoxic medications). Use of gastric acid-suppressing medications could be considered if antidepressants are used. Further investigations into the incidence, risk factors, mechanism of action, and treatment of this adverse effect are indicated.
Drug Brand Names
Acetaminophen/hydrocodone • Lorcet, Norco, Vicodin
Albuterol • Proventil
Bupropion • Wellbutrin
Duloxetine • Cymbalta
Nortriptyline • Pamelor, Aventyl
1. Cymbalta [package insert]. Indianapolis, IN: Eli Lilly and Company; 2014.
2. Amitriptyline. Medscape. http://reference.medscape.com/drug/levate-amitriptyline-342936. Accessed December 19, 2016.
3. Wellbutrin [package insert]. Triangle Park, NC: GlaxoSmithKline; 2004.
4. Balhara Y, Sagar R, Varghese ST. Bleeding gums: duloxetine may be the cause. J Postgrad Med. 2007;53(1):44-45.
5. Paton C, Ferrier IN. SSRIs and gastrointestinal bleeding. BMJ. 2005;331(7516):529-530.
6. Turner MS, May DB, Arthur RR, et al. Clinical impact of selective serotonin reuptake inhibitors therapy with bleeding risks. J Intern Med. 2007;261(3):205-213.
7. Humphries JE, Wheby MS, VandenBerg SR. Fluoxetine and the bleeding time. Arch Pathol Lab Med. 1990;114(7):727-728.
8. Alderman CP, Moritz CK, Ben-Tovim DI. Abnormal platelet aggregation associated with fluoxetine therapy. Ann Pharmacother. 1992;26(12):1517-1519.
9. Calhoun JW, Calhoun DD. Prolonged bleeding time in a patient treated with sertraline. Am J Psychiatry. 1996;153(3):443.
10. Ottervanger JP, Stricker BH, Huls J, et al. Bleeding attributed to the intake of paroxetine. Am J Psychiatry. 1994;151(5):781-782.
11. de Abajo FJ, Rodríguez LA, Montero D, et al. Association between selective serotonin reuptake inhibitors and upper gastrointestinal bleeding: population based case-control study. BMJ. 1999;319(7217):1106-1109.
12. Nelva A, Guy C, Tardy-Poncet B, et al. Hemorrhagic syndromes related to selective serotonin reuptake inhibitor (SSRI) antidepressants: seven case reports and review of the literature [in French]. Rev Med Interne. 2000;21(2):152-160.
13. de Abajo FJ, Montero D, Rodríguez LA, et al. Antidepressants and risk of upper gastrointestinal bleeding. Basic Clin Pharmacol Toxicol. 2006;98(3):304-310.
14. Tata LJ, Fortun PJ, Hubbard RB, et al. Does concurrent prescription of selective serotonin reuptake inhibitors and non-steroidal anti-inflammatory drugs substantially increase the risk of upper gastrointestinal bleeding? Aliment Pharmacol Ther. 2005;22(3):175-181.
15. Yuan Y, Tsoi K, Hunt RH. Selective serotonin reuptake inhibitors and risk of upper GI bleeding: confusion or confounding? Am J Med. 2006;119(9):719-727.
16. de Abajo FJ, García-Rodríguez LA. Risk of upper gastrointestinal tract bleeding associated with selective serotonin reuptake inhibitors and venlafaxine therapy: interaction with nonsteroidal anti-inflammatory drugs and effect of acid-suppressing agents. Arch Gen Psychiatry. 2008;65(7):795-803.
17. Barbui C, Andretta M, De Vitis G, et al. Antidepressant drug prescription and risk of abnormal bleeding: a case-control study. J Clin Pharmacol. 2009;29(1):33-38.
18. Pedrazza EL, Senger MR, Rico EP, et al. Fluoxetine and nortriptyline affect NTPDase and 5’-nucleotidase activities in rat blood serum. Life Sci. 2007;81(15):1205-1210.
19. Song HR, Jung YE, Wang HR, et al. Platelet count alterations associated with escitalopram, venlafaxine and bupropion in depressive patients. Psychiatry Clin Neurosci. 2012;66(5):457-459.
1. Cymbalta [package insert]. Indianapolis, IN: Eli Lilly and Company; 2014.
2. Amitriptyline. Medscape. http://reference.medscape.com/drug/levate-amitriptyline-342936. Accessed December 19, 2016.
3. Wellbutrin [package insert]. Triangle Park, NC: GlaxoSmithKline; 2004.
4. Balhara Y, Sagar R, Varghese ST. Bleeding gums: duloxetine may be the cause. J Postgrad Med. 2007;53(1):44-45.
5. Paton C, Ferrier IN. SSRIs and gastrointestinal bleeding. BMJ. 2005;331(7516):529-530.
6. Turner MS, May DB, Arthur RR, et al. Clinical impact of selective serotonin reuptake inhibitors therapy with bleeding risks. J Intern Med. 2007;261(3):205-213.
7. Humphries JE, Wheby MS, VandenBerg SR. Fluoxetine and the bleeding time. Arch Pathol Lab Med. 1990;114(7):727-728.
8. Alderman CP, Moritz CK, Ben-Tovim DI. Abnormal platelet aggregation associated with fluoxetine therapy. Ann Pharmacother. 1992;26(12):1517-1519.
9. Calhoun JW, Calhoun DD. Prolonged bleeding time in a patient treated with sertraline. Am J Psychiatry. 1996;153(3):443.
10. Ottervanger JP, Stricker BH, Huls J, et al. Bleeding attributed to the intake of paroxetine. Am J Psychiatry. 1994;151(5):781-782.
11. de Abajo FJ, Rodríguez LA, Montero D, et al. Association between selective serotonin reuptake inhibitors and upper gastrointestinal bleeding: population based case-control study. BMJ. 1999;319(7217):1106-1109.
12. Nelva A, Guy C, Tardy-Poncet B, et al. Hemorrhagic syndromes related to selective serotonin reuptake inhibitor (SSRI) antidepressants: seven case reports and review of the literature [in French]. Rev Med Interne. 2000;21(2):152-160.
13. de Abajo FJ, Montero D, Rodríguez LA, et al. Antidepressants and risk of upper gastrointestinal bleeding. Basic Clin Pharmacol Toxicol. 2006;98(3):304-310.
14. Tata LJ, Fortun PJ, Hubbard RB, et al. Does concurrent prescription of selective serotonin reuptake inhibitors and non-steroidal anti-inflammatory drugs substantially increase the risk of upper gastrointestinal bleeding? Aliment Pharmacol Ther. 2005;22(3):175-181.
15. Yuan Y, Tsoi K, Hunt RH. Selective serotonin reuptake inhibitors and risk of upper GI bleeding: confusion or confounding? Am J Med. 2006;119(9):719-727.
16. de Abajo FJ, García-Rodríguez LA. Risk of upper gastrointestinal tract bleeding associated with selective serotonin reuptake inhibitors and venlafaxine therapy: interaction with nonsteroidal anti-inflammatory drugs and effect of acid-suppressing agents. Arch Gen Psychiatry. 2008;65(7):795-803.
17. Barbui C, Andretta M, De Vitis G, et al. Antidepressant drug prescription and risk of abnormal bleeding: a case-control study. J Clin Pharmacol. 2009;29(1):33-38.
18. Pedrazza EL, Senger MR, Rico EP, et al. Fluoxetine and nortriptyline affect NTPDase and 5’-nucleotidase activities in rat blood serum. Life Sci. 2007;81(15):1205-1210.
19. Song HR, Jung YE, Wang HR, et al. Platelet count alterations associated with escitalopram, venlafaxine and bupropion in depressive patients. Psychiatry Clin Neurosci. 2012;66(5):457-459.
Teledermatology in Tijuana, Mexico
The Health Frontiers in Tijuana (HFiT) clinic is a binational partnership between the University of California, San Diego School of Medicine (San Diego, California); the Universidad Autónoma de Baja California School of Medicine (Tijuana, Mexico); and Desayunador Salesiano Padre Chava, a community grassroots organization in Tijuana, Mexico. Health Frontiers in Tijuana provides accessible quality health care for the underserved in Tijuana's Zona Norte.1 This article is a narrative meant to share my clinical experience as a dermatology resident who worked with HFiT to establish teledermatology services at this clinic.
Teledermatology in Tijuana
The patient population served by the HFiT clinic includes substance users, sex workers, the homeless, deportees, indigent patients, and recently Haitian immigrants.1 We established teledermatology services under the faculty leadership of Casey Carlos, MD, who was awarded a SkinCare for Developing Countries grant from the American Academy of Dermatology in April 2015 to address the need for teledermatology support for the clinic.2
Over the last 2 years, we have worked closely with 2 medical students from the University of California, San Diego--Nicole Herrick, BS, and Nicole DeMartinis, BA--to apply for the grant and create a system whereby volunteer residents and faculty consultants at the University of California, San Diego, can provide teledermatology services on a weekly basis to support the HFiT staff as they see patients with dermatologic conditions. Initially, we purchased touch screen tablets to use the Africa Teledermatology Project (africa.telederm.org) web-based program. The clinic was already functioning with electronic medical records with volunteers who carried tablets and scribed for the providers as they saw patients. We felt this method would be a great way to incorporate teledermatology into the clinic, and it functioned moderately well for several weeks but was very labor intensive on our part, as we frequently had to travel to Tijuana to retrain rotating clinic volunteers on how to use the program. Often, the Internet connection was slow, which made pulling up the Africa Teledermatology Project website difficult, and photographs also would take too long to upload in the middle of a busy clinic.
We are now exploring how to use a more simple email format to send the teledermatology consultations while still being compliant with the Health Insurance Portability and Accountability Act. We currently use secure university email accounts. Although we are still working out the details, this email-based method seems to work well. It has been a simple solution to accommodate a slow Internet connection and many rotating volunteers without requiring additional training. The email format also allows the photographs to be saved in draft messages, even if the Internet connection times out.
Once the teledermatology consultation is sent, the medical students and I review them and then get an attending physician's input on our proposed working diagnosis and plan. We work to have this process complete within several days to return the answered consultation to the requesting provider.
Final Thoughts
The HFiT providers have shared a lot of positive verbal feedback about this project. One frequent comment is how helpful it is to have access to a dermatologist for challenging cases. We also have heard many times that this project has inspired medical students and volunteers to expand their knowledge of dermatology. We are continuing to form new collaborative relationships with physicians in Tijuana. We will soon have the ability to train primary care providers at HFiT on performing simple skin biopsies and managing basic dermatologic conditions. Through our support of these providers, we are creating a sustainable partnership that is mutually beneficial to the patients in Tijuana as well as the medical students and residents in the United States. It is highly rewarding to all those involved with this project, and I am excited to see what challenges this next year will bring as we welcome many new patients from Haiti into the HFiT patient population.
- About Health Frontiers in Tijuana. University of California, San Diego School of Medicine website. https://meded.ucsd.edu/index.cfm/groups/hfit/about/. Accessed November 29, 2016.
- SkinCare for developing countries. American Academy of Dermatology website. https://www.aad.org/members/awards/skincare-for-developing-countries#undefined. Accessed November 29, 2016.
The Health Frontiers in Tijuana (HFiT) clinic is a binational partnership between the University of California, San Diego School of Medicine (San Diego, California); the Universidad Autónoma de Baja California School of Medicine (Tijuana, Mexico); and Desayunador Salesiano Padre Chava, a community grassroots organization in Tijuana, Mexico. Health Frontiers in Tijuana provides accessible quality health care for the underserved in Tijuana's Zona Norte.1 This article is a narrative meant to share my clinical experience as a dermatology resident who worked with HFiT to establish teledermatology services at this clinic.
Teledermatology in Tijuana
The patient population served by the HFiT clinic includes substance users, sex workers, the homeless, deportees, indigent patients, and recently Haitian immigrants.1 We established teledermatology services under the faculty leadership of Casey Carlos, MD, who was awarded a SkinCare for Developing Countries grant from the American Academy of Dermatology in April 2015 to address the need for teledermatology support for the clinic.2
Over the last 2 years, we have worked closely with 2 medical students from the University of California, San Diego--Nicole Herrick, BS, and Nicole DeMartinis, BA--to apply for the grant and create a system whereby volunteer residents and faculty consultants at the University of California, San Diego, can provide teledermatology services on a weekly basis to support the HFiT staff as they see patients with dermatologic conditions. Initially, we purchased touch screen tablets to use the Africa Teledermatology Project (africa.telederm.org) web-based program. The clinic was already functioning with electronic medical records with volunteers who carried tablets and scribed for the providers as they saw patients. We felt this method would be a great way to incorporate teledermatology into the clinic, and it functioned moderately well for several weeks but was very labor intensive on our part, as we frequently had to travel to Tijuana to retrain rotating clinic volunteers on how to use the program. Often, the Internet connection was slow, which made pulling up the Africa Teledermatology Project website difficult, and photographs also would take too long to upload in the middle of a busy clinic.
We are now exploring how to use a more simple email format to send the teledermatology consultations while still being compliant with the Health Insurance Portability and Accountability Act. We currently use secure university email accounts. Although we are still working out the details, this email-based method seems to work well. It has been a simple solution to accommodate a slow Internet connection and many rotating volunteers without requiring additional training. The email format also allows the photographs to be saved in draft messages, even if the Internet connection times out.
Once the teledermatology consultation is sent, the medical students and I review them and then get an attending physician's input on our proposed working diagnosis and plan. We work to have this process complete within several days to return the answered consultation to the requesting provider.
Final Thoughts
The HFiT providers have shared a lot of positive verbal feedback about this project. One frequent comment is how helpful it is to have access to a dermatologist for challenging cases. We also have heard many times that this project has inspired medical students and volunteers to expand their knowledge of dermatology. We are continuing to form new collaborative relationships with physicians in Tijuana. We will soon have the ability to train primary care providers at HFiT on performing simple skin biopsies and managing basic dermatologic conditions. Through our support of these providers, we are creating a sustainable partnership that is mutually beneficial to the patients in Tijuana as well as the medical students and residents in the United States. It is highly rewarding to all those involved with this project, and I am excited to see what challenges this next year will bring as we welcome many new patients from Haiti into the HFiT patient population.
The Health Frontiers in Tijuana (HFiT) clinic is a binational partnership between the University of California, San Diego School of Medicine (San Diego, California); the Universidad Autónoma de Baja California School of Medicine (Tijuana, Mexico); and Desayunador Salesiano Padre Chava, a community grassroots organization in Tijuana, Mexico. Health Frontiers in Tijuana provides accessible quality health care for the underserved in Tijuana's Zona Norte.1 This article is a narrative meant to share my clinical experience as a dermatology resident who worked with HFiT to establish teledermatology services at this clinic.
Teledermatology in Tijuana
The patient population served by the HFiT clinic includes substance users, sex workers, the homeless, deportees, indigent patients, and recently Haitian immigrants.1 We established teledermatology services under the faculty leadership of Casey Carlos, MD, who was awarded a SkinCare for Developing Countries grant from the American Academy of Dermatology in April 2015 to address the need for teledermatology support for the clinic.2
Over the last 2 years, we have worked closely with 2 medical students from the University of California, San Diego--Nicole Herrick, BS, and Nicole DeMartinis, BA--to apply for the grant and create a system whereby volunteer residents and faculty consultants at the University of California, San Diego, can provide teledermatology services on a weekly basis to support the HFiT staff as they see patients with dermatologic conditions. Initially, we purchased touch screen tablets to use the Africa Teledermatology Project (africa.telederm.org) web-based program. The clinic was already functioning with electronic medical records with volunteers who carried tablets and scribed for the providers as they saw patients. We felt this method would be a great way to incorporate teledermatology into the clinic, and it functioned moderately well for several weeks but was very labor intensive on our part, as we frequently had to travel to Tijuana to retrain rotating clinic volunteers on how to use the program. Often, the Internet connection was slow, which made pulling up the Africa Teledermatology Project website difficult, and photographs also would take too long to upload in the middle of a busy clinic.
We are now exploring how to use a more simple email format to send the teledermatology consultations while still being compliant with the Health Insurance Portability and Accountability Act. We currently use secure university email accounts. Although we are still working out the details, this email-based method seems to work well. It has been a simple solution to accommodate a slow Internet connection and many rotating volunteers without requiring additional training. The email format also allows the photographs to be saved in draft messages, even if the Internet connection times out.
Once the teledermatology consultation is sent, the medical students and I review them and then get an attending physician's input on our proposed working diagnosis and plan. We work to have this process complete within several days to return the answered consultation to the requesting provider.
Final Thoughts
The HFiT providers have shared a lot of positive verbal feedback about this project. One frequent comment is how helpful it is to have access to a dermatologist for challenging cases. We also have heard many times that this project has inspired medical students and volunteers to expand their knowledge of dermatology. We are continuing to form new collaborative relationships with physicians in Tijuana. We will soon have the ability to train primary care providers at HFiT on performing simple skin biopsies and managing basic dermatologic conditions. Through our support of these providers, we are creating a sustainable partnership that is mutually beneficial to the patients in Tijuana as well as the medical students and residents in the United States. It is highly rewarding to all those involved with this project, and I am excited to see what challenges this next year will bring as we welcome many new patients from Haiti into the HFiT patient population.
- About Health Frontiers in Tijuana. University of California, San Diego School of Medicine website. https://meded.ucsd.edu/index.cfm/groups/hfit/about/. Accessed November 29, 2016.
- SkinCare for developing countries. American Academy of Dermatology website. https://www.aad.org/members/awards/skincare-for-developing-countries#undefined. Accessed November 29, 2016.
- About Health Frontiers in Tijuana. University of California, San Diego School of Medicine website. https://meded.ucsd.edu/index.cfm/groups/hfit/about/. Accessed November 29, 2016.
- SkinCare for developing countries. American Academy of Dermatology website. https://www.aad.org/members/awards/skincare-for-developing-countries#undefined. Accessed November 29, 2016.
Simulation Training, Coaching, and Cue Cards Improve Delirium Care
Many clinicians continue to think that delirium or acute confusion is inevitable, untreatable, and harmless. However, nothing could be further from the truth.1 Delirium is a common and costly clinical syndrome that plagues a large percentage of older adults in a variety of settings. Numerous clinical studies conducted over the past 20 years have validated a high incidence of delirium in acute care hospitals.2-5 Reported rates of delirium among veteran and nonveteran populations vary widely, from 20% to 80%, but even these rates may reflect underrecognition and underreporting.6
Veterans with delirium pose a unique challenge to clinicians and health care systems because they often concurrently experience dementia, depression, posttraumatic stress disorder, and delirium. This complex syndrome caused by a myriad of environmental, physiologic, and psychological factors has been associated with profoundly poor clinical outcomes, including increased institutionalization, hospital length of stay, medication use, restraint use, falls, and mortality.3,7,8
Financial costs associated with delirium have been estimated at between $38 billion and $152 billion per year.9 In addition, this syndrome is costly in human resource expenditures, including increased burden on family members and the need for additional care providers, such as “sitters.” Families and clinicians report increased burden and stress in their interactions with these patients.10-12 Mounting evidence exists that some people with delirium never return to baseline cognitive function after even a single episode of delirium.1,8 Unfortunately, many clinicians do not recognize the seriousness of acute confusion.
Clinical practices related to routine screening for delirium vary widely. Although the Confusion Assessment Method (CAM) screening tool has high sensitivity and specificity, only 17% of hospitals consistently use this tool in clinical practice.2,6,13,14 According to a survey by Ely and colleagues, physicians reported being aware of delirium but inconsistently applying treatment protocols in clinical practice.2 Nurses noted similar difficulties in consistently screening patients and using delirium management protocols.15 Given the high incidence of delirium and its associated morbidity, including long-term cognitive impairment and human and financial costs, there is an urgent need to implement programs that enhance delirium prevention, timely recognition, and effective management to improve patient outcomes and address caregiver burden.
Over the past decade, educational strategies for improving delirium prevention, recognition, and management have included didactic education, consultation, and use of protocols.2,3,5,16 Bedside mentoring, implementation of protocols, and other interventions have been proposed as well.16,17 Several program models, including consultation by psychiatrists or psychiatric advanced practice nurses, have been implemented to increase detection and treatment of delirium.2,3,5,15 These pilot programs have been successful to varying degrees but in general have not shown independent effects beyond intervention or significantly increased recognition and management of adverse consequences for most patients. The cause of these outcomes seem to be multifactorial, but the complexity of the syndrome is part of the problem.18-20
Other possible barriers to change regarding delirium-related issues in clinical practice are lack of knowledge and skills and individual attitudes.20-22 Continuing evidence exists that clinicians feel ill-prepared to help delirious patients and frustrated enough to resort to using restraints and medication as first-line treatment.17 Yanamadala and colleagues reviewed 26 studies that identified strategies for delirium education.23 Most of the studies reported on didactic teaching methods that included information on resources. Only 1 study with nursing students reported using actors for simulation training. The programs most successful in improving knowledge, skills, attitudes, practice changes, and patient outcomes seemed to be those that used multiple educational methods, including information dissemination, use of guidelines and protocols, and peer and expert feedback.
This finding is consistent with the report that didactic learning alone, though improving competency, is less likely to change behavior or improve outcomes.24 A constellation of didactic education, mentoring, use of protocols to target high-risk patients, and a therapeutic environment has helped to reduce delirium incidence.4,25,26 Rudolph and colleagues found an association between multimodal education (risk assessment, sensory improvement, sleep promotion) and shorter hospital stays and less use of restraints.27 In clinical practice,however, implementation of evidence-based nonpharmacologic interventions, such as enhanced communication, mobility, nutrition, and meaningful activities, continues to lag despite education.28,29
Multimodal Education
To address these gaps in knowledge and skills, a multidisciplinary delirium resource team at the Louis Stokes Cleveland VAMC in Ohio developed a multimodal educational program incorporating simulation. The team of physicians, nurses, care coordinators, and social workers met regularly and developed interventions, educational materials, cue cards (eFigure 1), sense-enhancing aids (hearing amplifiers, puzzles, books, music CDs, prism glasses), clinical protocols, and delirium resources, such as CARES (Confusion Assessment Resource Enhancement Supplies) activity carts.
The CARES carts are small, rolling wooden carts stocked with various resources that focus on comfort and entertainment. The carts hold guided imagery CDs and Playaways (small audio players that come with ear buds for individual use and preloaded with a specific guided imagery session). The carts also hold books, books on tape, magazines, portable CD players, music CDs, games, exercise bands, healthful snacks, DVDs, and a portable DVD player.
Bedside mentoring continued throughout this quality improvement (QI) project, and a CARES teaching tool kit was developed. This kit, which continues to be used, includes videos and webinars for professionals and family caregivers; delirium pocket cue cards for physicians, nurses, aides, and sitters; a list of patient diversion supplies; and a family brochure. Delirium resource team members continue to provide the health care team with education and support. Given the emphasis on clinicians and patient outcomes in intensive care units (ICUs), the teaching tool kit is a valuable guide for assessing and treating patients with delirium during rounds and consultations.
Simulation
Using a simulation center and standardized patients (SPs), teams of interdisciplinary care providers practiced communication techniques and recommended treatment strategies with the help of a delirium coach. Sessions were videotaped. This intervention, which used simulation training, was supported by VA grant T-21, to reduce institutionalization and promote patient-centered care.
In a clinical context, simulation involves activities that mimick the reality of the clinical environment, including physical symptoms, communication patterns, and critical decision making. Trained SPs have the unique advantage of providing interactive practice and immediate feedback in a safe, controlled setting.30
Standardized patient programs provide learners with real-life interactions for the development and practice of interpersonal communication and clinical skills. In a laboratory setting, SP programs use role-play scenarios that allow learners to practice complex assessment and communication skills. Standardized patients are effective in teaching clinical, interviewing, and communication skills to learners from a variety of disciplines, including medicine, nursing, dental, and law.31 Standardized patients also provide a safe, supportive environment conducive to learning and standardized assessment.
Standardized patients can serve as practice models and participate in sophisticated assessment and feedback of learners’ abilities and services. Interacting with SPs gives learners a chance to practice clinical and interpersonal skills with an emphasis on communication before meeting actual patients. After interacting with an SP, a learner receives feedback from a preceptor and/or the learner’s peers. The SP also may be asked to provide brief feedback—a component of the SP training process. Allowing time for feedback is an integral part of student learning.
For this QI project, the delirium team used the Mt. Sinai Skills and Simulation Center at Case Western Reserve University School of Medicine. The facility focuses on creative, innovative continuing learning for health care providers at all levels and is certified by the American College of Surgeons as a level 1 Comprehensive Accredited Education Institute.
After a literature review and several brainstorming sessions, the delirium team tailored case studies to veterans to simulate the intervention and train SPs for the delirium program. During training, SPs reviewed scenarios, engaged in practice sessions, and answered questions. Several SPs were familiar with the behavior of delirious patients from personal experience.
The goals of the program were to increase knowledge of delirium signs and symptoms as a medical condition that requires immediate attention; increase competency in administering CAM and in documenting its results; increase interdisciplinary communication; and increase knowledge using nonpharmacologic interventions for sensory enhancement and agitation. Enhanced interdisciplinary communication was accomplished during the simulation by assigning individuals from different disciplines to work in teams. To maximize the use of resources and limit participants’ time away from the clinical area, the administration planned and supported a daylong program that included didactic education, videos, group work sessions, and the simulation sessions with resource team members as coaches.
Methods
All participants attended an hour-long introductory didactic lecture together. Then, they were randomly assigned to 1 of 4 remaining 45-minute training sessions. Each participant attended a session that combined a video and a case study; a session of role-playing with group discussion; and 2 simulation scenario sessions. Concurrent training sessions were needed to facilitate having all 100 attendees participate within 6 hours. Attendees were multidisciplinary providers from various non-ICU medical/surgical units and outpatient geriatric clinics. They rotated among sessions to accommodate all participants.
For the simulation scenarios, 8 simulation rooms were used over 2 periods—for 16 simulation sessions total. Participants were randomly assigned to multidisciplinary groups that worked in teams to assess and recommend care and treatments for SPs who were stimulating delirium. During the simulation, delirium coaches used cue cards and verbal hints to direct teams (Simulation Exercise). After the session, participants received verbal and
Outcomes
The impact of this multimodal intervention was measured in a variety of ways—with preintervention and postintervention knowledge tests, postsimulation surveys, program surveys, and patient chart reviews. Simulation sessions had 100 attendees, including mentors (interdisciplinary resource team), champions, and nursing staff from various hospital units. Champions represented multiple disciplines and had varying levels of experience. Most of the participants were nurses (62%), followed by social workers (12%), nursing assistants (12%), psychologists (6%), and others (11%). Participants’ years of experience were < 1 year (6%), 1 to 5 years (21%), 6 to 10 years (21%), and > 10 years (52%).
Mean knowledge survey score was 84% before training and 92% after training. Recognition of delirium as a medical emergency requiring immediate follow-up was increased (P = .02), as was knowledge about delirium management, as in increasing daytime activities (P < .001) and using distraction techniques (P = .03) (Table).
More than 94% of participants said the simulation training fulfilled their education needs. More than 80% reported using the information from the delirium workshop in their practice. In reviewing the techniques presented during the workshop, participants reported that they would approach situations differently from before the workshop by using more nonpharmacologic interventions (40%), enhanced communication (24%), and more in-depth assessment for medical causes of delirium (19%). Thirteen percent said they would not change their approach.
Thirty-five percent of respondents had positive feelings after the simulation exercise, 40% had cared for patients in similar situations, and 35% knew delirium care should start with assessment for medical causes.
The team reviewed patient charts for documentation of confusion assessment (signs and symptoms of confusion), including the standardized CAM method and nonpharmacologic interventions. Random monthly audits, 1 month before training and 5 months after, indicated an increase in confusion assessment and documentation. For veterans with delirium, nonpharmacologic interventions increased from 9% at baseline to 53% at the 5-month audit. Hospital length of stay, however, trended toward a slight increase in number of days. These findings are consistent with those reported by Rudolph and colleagues, who also piloted multimodal education and sensory enhancement.27
Discussion
Delirium assessment and management are complex skills that require well-coordinated interdisciplinary care and significant administrative support. Clinicians are becoming increasingly aware of the mounting evidence that patients with delirium feel immediate and often long-term negative effects. Strategies that support clinicians and enhance clinical care must include multimodal education and support.
In this QI project, participants supported use of simulation education, bedside coaching, and pocket cue cards to enhance delirium caregiving knowledge and skills. The majority of participants indicated that, though the simulation sessions were challenging, they also were realistic and helpful. Standardized patients provided feedback and often advised teams of needed improvement, such as spending more time in helping patients feel safe and comfortable. Coaches noted that many team members collaborated with one another but often neglected to use the pocket cue cards, family brochures, and other resources in the room. The reason is not clear. Perhaps the novelty of the resources and potential participant anxiety during the simulation were contributing factors. In future sessions, coaches must address making use of available resources.
Chart reviews indicated that nonpharmacologic management of delirium increased to 53% from < 10%. The increased use of resources in caring for patients with delirium was confirmed by the need to restock the CARES activity carts with patient diversion supplies. Given the success of this first program, another ICU education and simulation program was initiated. Findings from this QI project support using multimodal education that incorporates simulation training, bedside coaching, and pocket cue cards to enhance clinical practices for care of patients with delirium.33
Methods facilitated team collaboration, patient family communication, and synthesis of much information over a relatively short period. Didactic education alone may be insufficient to adequately enhance clinical care for delirium. The impact of a multimodal strategy—including a delirium resource consultation team that provided bedside mentoring, encouraged use of pocket cue cards, and supported evidence-based nonpharmacologic interventions—cannot be underestimated. In addition, simulation education also provided a unique opportunity for the health care teams to “practice” assessment, communication, and collaboration skills in a supportive setting with real-time feedback. These resources are being disseminated throughout the Louis Stokes Cleveland VAMC. Plans to disseminate this information to a broader national audience are under way.
Although not all facilities can access the simulation laboratory, many may be able to implement use of videos, case studies, and role-playing to enhance didactic education, to improve outcomes for patients with delirium. Enhanced clinical management of complex syndromes such as delirium may be influenced most by a combination of education, practice, and mentoring methods. Use of simulation as an adjunct teaching method is a promising strategy that may enhance care of patients with delirium. This QI project demonstrated positive educational and clinical trends in a VA setting. More studies, including randomized clinical trials, are needed in a variety of settings to further test these strategies.
Acknowledgments
The authors give special thanks to Brigid Wilson, PhD, Heather O’Leary, RN, and Patrick Kilroy, SN, for their assistance in this project. The project was developed by the Cleveland VAMC interdisciplinary delirium resource team with support of a VA T-21 grant and the VISN 10 Geriatric Research Education and Clinical Centers.
1. ICU Delirium and Cognitive Impairment Study Group, Center for Health Services Research, Vanderbilt University Medical Center. Delirium prevention and safety: starting with the ABCDEF’s. http://www.icudelirium.org/medicalprofessionals .html. Accessed November 9, 2016.
2. Ely EW, Siegel MD, Inouye SK. Delirium in the intensive care unit: an under-recognized syndrome of organ dysfunction. Semin Respir Crit Care Med. 2001;22(2):115-126.
3. Inouye SK, Bogardus ST Jr, Vitagliano G, et al. Burden of illness score for elderly persons: risk adjustment incorporating the cumulative impact of diseases, physiologic abnormalities, and functional impairments. Med Care. 2003;41(1):70-83.
4. Marcantonio ER, Flacker JM, Wright RJ, Resnick NM. Reducing delirium after hip fracture: a randomized trial. J Am Geriatr Soc. 2001;49(5):516-522.
5. Foreman MD, Wakefield B, Culp K, Milisen K. Delirium in elderly patients: an overview of the state of the science. J Gerontol Nurs. 2001;27(4):12-20.
6. Inouye SK, van Dyck CH, Alessi CA, Balkin S, Siegal AP, Horwitz RI. Clarifying confusion: the confusion assessment method. A new method for detection of delirium. Ann Intern Med. 1990;113(12):941-948.
7. Maldonado JR. Pathoetiological model of delirium: a comprehensive understanding of the neurobiology of delirium and an evidence-based approach to prevention and treatment. Crit Care Clin. 2008;24(4):789-856.
8. Witlox J, Eurelings LS, de Jonghe JF, Kalisvaart KJ, Eikelenboom P, van Gool WA. Delirium in elderly patients and the risk of postdischarge mortality, institutionalization, and dementia: a meta-analysis. JAMA. 2010;304(4):443-451.
9. Leslie DL, Marcantonio ER, Zhang Y, Leo-Summers L, Inouye SK. One-year health care costs associated with delirium in the elderly population. Arch Intern Med. 2008;168(1):27-32.
10. Bruera E, Bush SH, Willey J, et al. Impact of delirium and recall on the level of distress in patients with advanced cancer and their family caregivers. Cancer. 2009;115(9):2004-2012.
11. Cohen MZ, Pace EA, Kaur G, Bruera E. Delirium in advanced cancer leading to distress in patients and family caregivers. J Palliat Care. 2009;25(3):164-171.
12. Patel RP, Gambrell M, Speroff T, et al. Delirium and sedation in the intensive care unit: survey of behaviors and attitudes of 1384 healthcare professionals. Crit Care Med. 2009;37(3):825-832.
13. Wei LA, Fearing MA, Sternberg EJ, Inouye SK. The confusion assessment method: a systematic review of current usage. J Am Geriatr Soc. 2008;56(5):823-830.
14. Neuman MD, Speck RM, Karlawish JH, Schwartz JS, Shea JA. Hospital protocols for the inpatient care of older adults: results from a statewide survey. J Am Geriatr Soc. 2010;58(10):1959-1964.
15. Idemoto BK. The assessment of delirium and depression in the intensive care unit [doctoral dissertation]. Cleveland, OH: Case Western Reserve University; 2005. No. 137.
16. Balas MC, Vasilevskis EE, Burke WJ, et al. Critical care nurses’ role in implementing the “ABCDE bundle” into practice. Crit Care Nurse. 2012;32(2):35-38, 40-47.
17. Barr J, Fraser GL, Puntillo K, et al; American College of Critical Care Medicine. Clinical practice guidelines for the management of pain, agitation, and delirium in adult patients in the intensive care unit: executive summary. Am J Health Syst Pharm. 2013;70(1):53-58.
18. Pun BT, Ely EW. The importance of diagnosing and managing ICU delirium. Chest. 2007;132(2):624-636.
19. Pisani MA, Araujo KL, Van Ness PH, Zhang Y, Ely EW, Inouye SK. A research algorithm to improve detection of delirium in the intensive care unit. Crit Care. 2006;10(4):R121.
20. Voyer P, Cole MG, McCusker J, St-Jacques S, Laplante J. Accuracy of nurse documentation of delirium symptoms in medical charts. Int J Nurs Pract. 2008;14(2):165-167.
21. Pandharipande P, Cotton BA, Shintani A, et al. Prevalence and risk factors for development of delirium in surgical and trauma intensive care unit patients. J Trauma. 2008;65(1):34-41.
22. Steis MR, Fick DM. Are nurses recognizing delirium? A systematic review. J Gerontol Nurs. 2008;34(9):40-48.
23. Yanamadala M, Wieland D, Heflin MT. Educational interventions to improve recognition of delirium: a systematic review. J Am Geriatr Soc. 2013;61(11):1983-1993.
24. Ramaswamy R, Dix EF, Drew JE, Diamond JJ, Inouye SK, Roehl BJ. Beyond grand rounds: a comprehensive and sequential intervention to improve identification of delirium. Gerontologist. 2011;51(1):122-131.
25. Lundström M, Olofsson B, Stenvall M, et al. Postoperative delirium in old patients with femoral neck fracture: a randomized intervention study. Aging Clin Exp Res. 2007;19(3):178-186.
26. Inouye SK. Predisposing and precipitating factors for delirium in hospitalized older patients. Dement Geriatr Cogn Disord. 1999;10(5):393-400.
27. Rudolph JL, Archambault E, Kelly B; VA Boston Delirium Task Force. A delirium risk modification program is associated with hospital outcomes. J Am Med Dir Assoc. 2014;15(12):957.e7-e11.
28. Hartford Institute for Geriatric Nursing. http://hartfordign.org. Accessed November 9, 2016.
29. Inouye SK. A practical program for preventing delirium in hospitalized elderly patients. Cleve Clin J Med. 2004;71(11):890-896.
30. Raurell-Torredà M, Olivet-Pujol J, Romero-Collado À, Malagon-Aguilera MC, Patiño-Masó J, Baltasar-Bagué A. Case-based learning and simulation: useful tools to enhance nurses’ education? Nonrandomized controlled trial. J Nurs Scholarsh. 2015;47(1):34-42.
31. Mast TA, Coulson LR, Meyer TC, et al. Self directed learning: wisdom from independent study programs. Res Med Educ. 1985;24:305-311.
32. Massachusetts Department of Higher Education Nursing Initiative—Simulation Scenario Library. http://www.mass.edu/nahi/Sim/Welcome.asp. Accessed November 1, 2016.
33. Vancouver Island Health Authority. Delirium in the older person: a medical emergency. Pre-Post Test. http://www.viha.ca/NR/rdonlyres/03D50FE6-AF90 -4F98-8B3B-7AE87A4B481D/0/preposttest.pdf. Reviewed August 2014. Accessed November 9, 2016.
Many clinicians continue to think that delirium or acute confusion is inevitable, untreatable, and harmless. However, nothing could be further from the truth.1 Delirium is a common and costly clinical syndrome that plagues a large percentage of older adults in a variety of settings. Numerous clinical studies conducted over the past 20 years have validated a high incidence of delirium in acute care hospitals.2-5 Reported rates of delirium among veteran and nonveteran populations vary widely, from 20% to 80%, but even these rates may reflect underrecognition and underreporting.6
Veterans with delirium pose a unique challenge to clinicians and health care systems because they often concurrently experience dementia, depression, posttraumatic stress disorder, and delirium. This complex syndrome caused by a myriad of environmental, physiologic, and psychological factors has been associated with profoundly poor clinical outcomes, including increased institutionalization, hospital length of stay, medication use, restraint use, falls, and mortality.3,7,8
Financial costs associated with delirium have been estimated at between $38 billion and $152 billion per year.9 In addition, this syndrome is costly in human resource expenditures, including increased burden on family members and the need for additional care providers, such as “sitters.” Families and clinicians report increased burden and stress in their interactions with these patients.10-12 Mounting evidence exists that some people with delirium never return to baseline cognitive function after even a single episode of delirium.1,8 Unfortunately, many clinicians do not recognize the seriousness of acute confusion.
Clinical practices related to routine screening for delirium vary widely. Although the Confusion Assessment Method (CAM) screening tool has high sensitivity and specificity, only 17% of hospitals consistently use this tool in clinical practice.2,6,13,14 According to a survey by Ely and colleagues, physicians reported being aware of delirium but inconsistently applying treatment protocols in clinical practice.2 Nurses noted similar difficulties in consistently screening patients and using delirium management protocols.15 Given the high incidence of delirium and its associated morbidity, including long-term cognitive impairment and human and financial costs, there is an urgent need to implement programs that enhance delirium prevention, timely recognition, and effective management to improve patient outcomes and address caregiver burden.
Over the past decade, educational strategies for improving delirium prevention, recognition, and management have included didactic education, consultation, and use of protocols.2,3,5,16 Bedside mentoring, implementation of protocols, and other interventions have been proposed as well.16,17 Several program models, including consultation by psychiatrists or psychiatric advanced practice nurses, have been implemented to increase detection and treatment of delirium.2,3,5,15 These pilot programs have been successful to varying degrees but in general have not shown independent effects beyond intervention or significantly increased recognition and management of adverse consequences for most patients. The cause of these outcomes seem to be multifactorial, but the complexity of the syndrome is part of the problem.18-20
Other possible barriers to change regarding delirium-related issues in clinical practice are lack of knowledge and skills and individual attitudes.20-22 Continuing evidence exists that clinicians feel ill-prepared to help delirious patients and frustrated enough to resort to using restraints and medication as first-line treatment.17 Yanamadala and colleagues reviewed 26 studies that identified strategies for delirium education.23 Most of the studies reported on didactic teaching methods that included information on resources. Only 1 study with nursing students reported using actors for simulation training. The programs most successful in improving knowledge, skills, attitudes, practice changes, and patient outcomes seemed to be those that used multiple educational methods, including information dissemination, use of guidelines and protocols, and peer and expert feedback.
This finding is consistent with the report that didactic learning alone, though improving competency, is less likely to change behavior or improve outcomes.24 A constellation of didactic education, mentoring, use of protocols to target high-risk patients, and a therapeutic environment has helped to reduce delirium incidence.4,25,26 Rudolph and colleagues found an association between multimodal education (risk assessment, sensory improvement, sleep promotion) and shorter hospital stays and less use of restraints.27 In clinical practice,however, implementation of evidence-based nonpharmacologic interventions, such as enhanced communication, mobility, nutrition, and meaningful activities, continues to lag despite education.28,29
Multimodal Education
To address these gaps in knowledge and skills, a multidisciplinary delirium resource team at the Louis Stokes Cleveland VAMC in Ohio developed a multimodal educational program incorporating simulation. The team of physicians, nurses, care coordinators, and social workers met regularly and developed interventions, educational materials, cue cards (eFigure 1), sense-enhancing aids (hearing amplifiers, puzzles, books, music CDs, prism glasses), clinical protocols, and delirium resources, such as CARES (Confusion Assessment Resource Enhancement Supplies) activity carts.
The CARES carts are small, rolling wooden carts stocked with various resources that focus on comfort and entertainment. The carts hold guided imagery CDs and Playaways (small audio players that come with ear buds for individual use and preloaded with a specific guided imagery session). The carts also hold books, books on tape, magazines, portable CD players, music CDs, games, exercise bands, healthful snacks, DVDs, and a portable DVD player.
Bedside mentoring continued throughout this quality improvement (QI) project, and a CARES teaching tool kit was developed. This kit, which continues to be used, includes videos and webinars for professionals and family caregivers; delirium pocket cue cards for physicians, nurses, aides, and sitters; a list of patient diversion supplies; and a family brochure. Delirium resource team members continue to provide the health care team with education and support. Given the emphasis on clinicians and patient outcomes in intensive care units (ICUs), the teaching tool kit is a valuable guide for assessing and treating patients with delirium during rounds and consultations.
Simulation
Using a simulation center and standardized patients (SPs), teams of interdisciplinary care providers practiced communication techniques and recommended treatment strategies with the help of a delirium coach. Sessions were videotaped. This intervention, which used simulation training, was supported by VA grant T-21, to reduce institutionalization and promote patient-centered care.
In a clinical context, simulation involves activities that mimick the reality of the clinical environment, including physical symptoms, communication patterns, and critical decision making. Trained SPs have the unique advantage of providing interactive practice and immediate feedback in a safe, controlled setting.30
Standardized patient programs provide learners with real-life interactions for the development and practice of interpersonal communication and clinical skills. In a laboratory setting, SP programs use role-play scenarios that allow learners to practice complex assessment and communication skills. Standardized patients are effective in teaching clinical, interviewing, and communication skills to learners from a variety of disciplines, including medicine, nursing, dental, and law.31 Standardized patients also provide a safe, supportive environment conducive to learning and standardized assessment.
Standardized patients can serve as practice models and participate in sophisticated assessment and feedback of learners’ abilities and services. Interacting with SPs gives learners a chance to practice clinical and interpersonal skills with an emphasis on communication before meeting actual patients. After interacting with an SP, a learner receives feedback from a preceptor and/or the learner’s peers. The SP also may be asked to provide brief feedback—a component of the SP training process. Allowing time for feedback is an integral part of student learning.
For this QI project, the delirium team used the Mt. Sinai Skills and Simulation Center at Case Western Reserve University School of Medicine. The facility focuses on creative, innovative continuing learning for health care providers at all levels and is certified by the American College of Surgeons as a level 1 Comprehensive Accredited Education Institute.
After a literature review and several brainstorming sessions, the delirium team tailored case studies to veterans to simulate the intervention and train SPs for the delirium program. During training, SPs reviewed scenarios, engaged in practice sessions, and answered questions. Several SPs were familiar with the behavior of delirious patients from personal experience.
The goals of the program were to increase knowledge of delirium signs and symptoms as a medical condition that requires immediate attention; increase competency in administering CAM and in documenting its results; increase interdisciplinary communication; and increase knowledge using nonpharmacologic interventions for sensory enhancement and agitation. Enhanced interdisciplinary communication was accomplished during the simulation by assigning individuals from different disciplines to work in teams. To maximize the use of resources and limit participants’ time away from the clinical area, the administration planned and supported a daylong program that included didactic education, videos, group work sessions, and the simulation sessions with resource team members as coaches.
Methods
All participants attended an hour-long introductory didactic lecture together. Then, they were randomly assigned to 1 of 4 remaining 45-minute training sessions. Each participant attended a session that combined a video and a case study; a session of role-playing with group discussion; and 2 simulation scenario sessions. Concurrent training sessions were needed to facilitate having all 100 attendees participate within 6 hours. Attendees were multidisciplinary providers from various non-ICU medical/surgical units and outpatient geriatric clinics. They rotated among sessions to accommodate all participants.
For the simulation scenarios, 8 simulation rooms were used over 2 periods—for 16 simulation sessions total. Participants were randomly assigned to multidisciplinary groups that worked in teams to assess and recommend care and treatments for SPs who were stimulating delirium. During the simulation, delirium coaches used cue cards and verbal hints to direct teams (Simulation Exercise). After the session, participants received verbal and
Outcomes
The impact of this multimodal intervention was measured in a variety of ways—with preintervention and postintervention knowledge tests, postsimulation surveys, program surveys, and patient chart reviews. Simulation sessions had 100 attendees, including mentors (interdisciplinary resource team), champions, and nursing staff from various hospital units. Champions represented multiple disciplines and had varying levels of experience. Most of the participants were nurses (62%), followed by social workers (12%), nursing assistants (12%), psychologists (6%), and others (11%). Participants’ years of experience were < 1 year (6%), 1 to 5 years (21%), 6 to 10 years (21%), and > 10 years (52%).
Mean knowledge survey score was 84% before training and 92% after training. Recognition of delirium as a medical emergency requiring immediate follow-up was increased (P = .02), as was knowledge about delirium management, as in increasing daytime activities (P < .001) and using distraction techniques (P = .03) (Table).
More than 94% of participants said the simulation training fulfilled their education needs. More than 80% reported using the information from the delirium workshop in their practice. In reviewing the techniques presented during the workshop, participants reported that they would approach situations differently from before the workshop by using more nonpharmacologic interventions (40%), enhanced communication (24%), and more in-depth assessment for medical causes of delirium (19%). Thirteen percent said they would not change their approach.
Thirty-five percent of respondents had positive feelings after the simulation exercise, 40% had cared for patients in similar situations, and 35% knew delirium care should start with assessment for medical causes.
The team reviewed patient charts for documentation of confusion assessment (signs and symptoms of confusion), including the standardized CAM method and nonpharmacologic interventions. Random monthly audits, 1 month before training and 5 months after, indicated an increase in confusion assessment and documentation. For veterans with delirium, nonpharmacologic interventions increased from 9% at baseline to 53% at the 5-month audit. Hospital length of stay, however, trended toward a slight increase in number of days. These findings are consistent with those reported by Rudolph and colleagues, who also piloted multimodal education and sensory enhancement.27
Discussion
Delirium assessment and management are complex skills that require well-coordinated interdisciplinary care and significant administrative support. Clinicians are becoming increasingly aware of the mounting evidence that patients with delirium feel immediate and often long-term negative effects. Strategies that support clinicians and enhance clinical care must include multimodal education and support.
In this QI project, participants supported use of simulation education, bedside coaching, and pocket cue cards to enhance delirium caregiving knowledge and skills. The majority of participants indicated that, though the simulation sessions were challenging, they also were realistic and helpful. Standardized patients provided feedback and often advised teams of needed improvement, such as spending more time in helping patients feel safe and comfortable. Coaches noted that many team members collaborated with one another but often neglected to use the pocket cue cards, family brochures, and other resources in the room. The reason is not clear. Perhaps the novelty of the resources and potential participant anxiety during the simulation were contributing factors. In future sessions, coaches must address making use of available resources.
Chart reviews indicated that nonpharmacologic management of delirium increased to 53% from < 10%. The increased use of resources in caring for patients with delirium was confirmed by the need to restock the CARES activity carts with patient diversion supplies. Given the success of this first program, another ICU education and simulation program was initiated. Findings from this QI project support using multimodal education that incorporates simulation training, bedside coaching, and pocket cue cards to enhance clinical practices for care of patients with delirium.33
Methods facilitated team collaboration, patient family communication, and synthesis of much information over a relatively short period. Didactic education alone may be insufficient to adequately enhance clinical care for delirium. The impact of a multimodal strategy—including a delirium resource consultation team that provided bedside mentoring, encouraged use of pocket cue cards, and supported evidence-based nonpharmacologic interventions—cannot be underestimated. In addition, simulation education also provided a unique opportunity for the health care teams to “practice” assessment, communication, and collaboration skills in a supportive setting with real-time feedback. These resources are being disseminated throughout the Louis Stokes Cleveland VAMC. Plans to disseminate this information to a broader national audience are under way.
Although not all facilities can access the simulation laboratory, many may be able to implement use of videos, case studies, and role-playing to enhance didactic education, to improve outcomes for patients with delirium. Enhanced clinical management of complex syndromes such as delirium may be influenced most by a combination of education, practice, and mentoring methods. Use of simulation as an adjunct teaching method is a promising strategy that may enhance care of patients with delirium. This QI project demonstrated positive educational and clinical trends in a VA setting. More studies, including randomized clinical trials, are needed in a variety of settings to further test these strategies.
Acknowledgments
The authors give special thanks to Brigid Wilson, PhD, Heather O’Leary, RN, and Patrick Kilroy, SN, for their assistance in this project. The project was developed by the Cleveland VAMC interdisciplinary delirium resource team with support of a VA T-21 grant and the VISN 10 Geriatric Research Education and Clinical Centers.
Many clinicians continue to think that delirium or acute confusion is inevitable, untreatable, and harmless. However, nothing could be further from the truth.1 Delirium is a common and costly clinical syndrome that plagues a large percentage of older adults in a variety of settings. Numerous clinical studies conducted over the past 20 years have validated a high incidence of delirium in acute care hospitals.2-5 Reported rates of delirium among veteran and nonveteran populations vary widely, from 20% to 80%, but even these rates may reflect underrecognition and underreporting.6
Veterans with delirium pose a unique challenge to clinicians and health care systems because they often concurrently experience dementia, depression, posttraumatic stress disorder, and delirium. This complex syndrome caused by a myriad of environmental, physiologic, and psychological factors has been associated with profoundly poor clinical outcomes, including increased institutionalization, hospital length of stay, medication use, restraint use, falls, and mortality.3,7,8
Financial costs associated with delirium have been estimated at between $38 billion and $152 billion per year.9 In addition, this syndrome is costly in human resource expenditures, including increased burden on family members and the need for additional care providers, such as “sitters.” Families and clinicians report increased burden and stress in their interactions with these patients.10-12 Mounting evidence exists that some people with delirium never return to baseline cognitive function after even a single episode of delirium.1,8 Unfortunately, many clinicians do not recognize the seriousness of acute confusion.
Clinical practices related to routine screening for delirium vary widely. Although the Confusion Assessment Method (CAM) screening tool has high sensitivity and specificity, only 17% of hospitals consistently use this tool in clinical practice.2,6,13,14 According to a survey by Ely and colleagues, physicians reported being aware of delirium but inconsistently applying treatment protocols in clinical practice.2 Nurses noted similar difficulties in consistently screening patients and using delirium management protocols.15 Given the high incidence of delirium and its associated morbidity, including long-term cognitive impairment and human and financial costs, there is an urgent need to implement programs that enhance delirium prevention, timely recognition, and effective management to improve patient outcomes and address caregiver burden.
Over the past decade, educational strategies for improving delirium prevention, recognition, and management have included didactic education, consultation, and use of protocols.2,3,5,16 Bedside mentoring, implementation of protocols, and other interventions have been proposed as well.16,17 Several program models, including consultation by psychiatrists or psychiatric advanced practice nurses, have been implemented to increase detection and treatment of delirium.2,3,5,15 These pilot programs have been successful to varying degrees but in general have not shown independent effects beyond intervention or significantly increased recognition and management of adverse consequences for most patients. The cause of these outcomes seem to be multifactorial, but the complexity of the syndrome is part of the problem.18-20
Other possible barriers to change regarding delirium-related issues in clinical practice are lack of knowledge and skills and individual attitudes.20-22 Continuing evidence exists that clinicians feel ill-prepared to help delirious patients and frustrated enough to resort to using restraints and medication as first-line treatment.17 Yanamadala and colleagues reviewed 26 studies that identified strategies for delirium education.23 Most of the studies reported on didactic teaching methods that included information on resources. Only 1 study with nursing students reported using actors for simulation training. The programs most successful in improving knowledge, skills, attitudes, practice changes, and patient outcomes seemed to be those that used multiple educational methods, including information dissemination, use of guidelines and protocols, and peer and expert feedback.
This finding is consistent with the report that didactic learning alone, though improving competency, is less likely to change behavior or improve outcomes.24 A constellation of didactic education, mentoring, use of protocols to target high-risk patients, and a therapeutic environment has helped to reduce delirium incidence.4,25,26 Rudolph and colleagues found an association between multimodal education (risk assessment, sensory improvement, sleep promotion) and shorter hospital stays and less use of restraints.27 In clinical practice,however, implementation of evidence-based nonpharmacologic interventions, such as enhanced communication, mobility, nutrition, and meaningful activities, continues to lag despite education.28,29
Multimodal Education
To address these gaps in knowledge and skills, a multidisciplinary delirium resource team at the Louis Stokes Cleveland VAMC in Ohio developed a multimodal educational program incorporating simulation. The team of physicians, nurses, care coordinators, and social workers met regularly and developed interventions, educational materials, cue cards (eFigure 1), sense-enhancing aids (hearing amplifiers, puzzles, books, music CDs, prism glasses), clinical protocols, and delirium resources, such as CARES (Confusion Assessment Resource Enhancement Supplies) activity carts.
The CARES carts are small, rolling wooden carts stocked with various resources that focus on comfort and entertainment. The carts hold guided imagery CDs and Playaways (small audio players that come with ear buds for individual use and preloaded with a specific guided imagery session). The carts also hold books, books on tape, magazines, portable CD players, music CDs, games, exercise bands, healthful snacks, DVDs, and a portable DVD player.
Bedside mentoring continued throughout this quality improvement (QI) project, and a CARES teaching tool kit was developed. This kit, which continues to be used, includes videos and webinars for professionals and family caregivers; delirium pocket cue cards for physicians, nurses, aides, and sitters; a list of patient diversion supplies; and a family brochure. Delirium resource team members continue to provide the health care team with education and support. Given the emphasis on clinicians and patient outcomes in intensive care units (ICUs), the teaching tool kit is a valuable guide for assessing and treating patients with delirium during rounds and consultations.
Simulation
Using a simulation center and standardized patients (SPs), teams of interdisciplinary care providers practiced communication techniques and recommended treatment strategies with the help of a delirium coach. Sessions were videotaped. This intervention, which used simulation training, was supported by VA grant T-21, to reduce institutionalization and promote patient-centered care.
In a clinical context, simulation involves activities that mimick the reality of the clinical environment, including physical symptoms, communication patterns, and critical decision making. Trained SPs have the unique advantage of providing interactive practice and immediate feedback in a safe, controlled setting.30
Standardized patient programs provide learners with real-life interactions for the development and practice of interpersonal communication and clinical skills. In a laboratory setting, SP programs use role-play scenarios that allow learners to practice complex assessment and communication skills. Standardized patients are effective in teaching clinical, interviewing, and communication skills to learners from a variety of disciplines, including medicine, nursing, dental, and law.31 Standardized patients also provide a safe, supportive environment conducive to learning and standardized assessment.
Standardized patients can serve as practice models and participate in sophisticated assessment and feedback of learners’ abilities and services. Interacting with SPs gives learners a chance to practice clinical and interpersonal skills with an emphasis on communication before meeting actual patients. After interacting with an SP, a learner receives feedback from a preceptor and/or the learner’s peers. The SP also may be asked to provide brief feedback—a component of the SP training process. Allowing time for feedback is an integral part of student learning.
For this QI project, the delirium team used the Mt. Sinai Skills and Simulation Center at Case Western Reserve University School of Medicine. The facility focuses on creative, innovative continuing learning for health care providers at all levels and is certified by the American College of Surgeons as a level 1 Comprehensive Accredited Education Institute.
After a literature review and several brainstorming sessions, the delirium team tailored case studies to veterans to simulate the intervention and train SPs for the delirium program. During training, SPs reviewed scenarios, engaged in practice sessions, and answered questions. Several SPs were familiar with the behavior of delirious patients from personal experience.
The goals of the program were to increase knowledge of delirium signs and symptoms as a medical condition that requires immediate attention; increase competency in administering CAM and in documenting its results; increase interdisciplinary communication; and increase knowledge using nonpharmacologic interventions for sensory enhancement and agitation. Enhanced interdisciplinary communication was accomplished during the simulation by assigning individuals from different disciplines to work in teams. To maximize the use of resources and limit participants’ time away from the clinical area, the administration planned and supported a daylong program that included didactic education, videos, group work sessions, and the simulation sessions with resource team members as coaches.
Methods
All participants attended an hour-long introductory didactic lecture together. Then, they were randomly assigned to 1 of 4 remaining 45-minute training sessions. Each participant attended a session that combined a video and a case study; a session of role-playing with group discussion; and 2 simulation scenario sessions. Concurrent training sessions were needed to facilitate having all 100 attendees participate within 6 hours. Attendees were multidisciplinary providers from various non-ICU medical/surgical units and outpatient geriatric clinics. They rotated among sessions to accommodate all participants.
For the simulation scenarios, 8 simulation rooms were used over 2 periods—for 16 simulation sessions total. Participants were randomly assigned to multidisciplinary groups that worked in teams to assess and recommend care and treatments for SPs who were stimulating delirium. During the simulation, delirium coaches used cue cards and verbal hints to direct teams (Simulation Exercise). After the session, participants received verbal and
Outcomes
The impact of this multimodal intervention was measured in a variety of ways—with preintervention and postintervention knowledge tests, postsimulation surveys, program surveys, and patient chart reviews. Simulation sessions had 100 attendees, including mentors (interdisciplinary resource team), champions, and nursing staff from various hospital units. Champions represented multiple disciplines and had varying levels of experience. Most of the participants were nurses (62%), followed by social workers (12%), nursing assistants (12%), psychologists (6%), and others (11%). Participants’ years of experience were < 1 year (6%), 1 to 5 years (21%), 6 to 10 years (21%), and > 10 years (52%).
Mean knowledge survey score was 84% before training and 92% after training. Recognition of delirium as a medical emergency requiring immediate follow-up was increased (P = .02), as was knowledge about delirium management, as in increasing daytime activities (P < .001) and using distraction techniques (P = .03) (Table).
More than 94% of participants said the simulation training fulfilled their education needs. More than 80% reported using the information from the delirium workshop in their practice. In reviewing the techniques presented during the workshop, participants reported that they would approach situations differently from before the workshop by using more nonpharmacologic interventions (40%), enhanced communication (24%), and more in-depth assessment for medical causes of delirium (19%). Thirteen percent said they would not change their approach.
Thirty-five percent of respondents had positive feelings after the simulation exercise, 40% had cared for patients in similar situations, and 35% knew delirium care should start with assessment for medical causes.
The team reviewed patient charts for documentation of confusion assessment (signs and symptoms of confusion), including the standardized CAM method and nonpharmacologic interventions. Random monthly audits, 1 month before training and 5 months after, indicated an increase in confusion assessment and documentation. For veterans with delirium, nonpharmacologic interventions increased from 9% at baseline to 53% at the 5-month audit. Hospital length of stay, however, trended toward a slight increase in number of days. These findings are consistent with those reported by Rudolph and colleagues, who also piloted multimodal education and sensory enhancement.27
Discussion
Delirium assessment and management are complex skills that require well-coordinated interdisciplinary care and significant administrative support. Clinicians are becoming increasingly aware of the mounting evidence that patients with delirium feel immediate and often long-term negative effects. Strategies that support clinicians and enhance clinical care must include multimodal education and support.
In this QI project, participants supported use of simulation education, bedside coaching, and pocket cue cards to enhance delirium caregiving knowledge and skills. The majority of participants indicated that, though the simulation sessions were challenging, they also were realistic and helpful. Standardized patients provided feedback and often advised teams of needed improvement, such as spending more time in helping patients feel safe and comfortable. Coaches noted that many team members collaborated with one another but often neglected to use the pocket cue cards, family brochures, and other resources in the room. The reason is not clear. Perhaps the novelty of the resources and potential participant anxiety during the simulation were contributing factors. In future sessions, coaches must address making use of available resources.
Chart reviews indicated that nonpharmacologic management of delirium increased to 53% from < 10%. The increased use of resources in caring for patients with delirium was confirmed by the need to restock the CARES activity carts with patient diversion supplies. Given the success of this first program, another ICU education and simulation program was initiated. Findings from this QI project support using multimodal education that incorporates simulation training, bedside coaching, and pocket cue cards to enhance clinical practices for care of patients with delirium.33
Methods facilitated team collaboration, patient family communication, and synthesis of much information over a relatively short period. Didactic education alone may be insufficient to adequately enhance clinical care for delirium. The impact of a multimodal strategy—including a delirium resource consultation team that provided bedside mentoring, encouraged use of pocket cue cards, and supported evidence-based nonpharmacologic interventions—cannot be underestimated. In addition, simulation education also provided a unique opportunity for the health care teams to “practice” assessment, communication, and collaboration skills in a supportive setting with real-time feedback. These resources are being disseminated throughout the Louis Stokes Cleveland VAMC. Plans to disseminate this information to a broader national audience are under way.
Although not all facilities can access the simulation laboratory, many may be able to implement use of videos, case studies, and role-playing to enhance didactic education, to improve outcomes for patients with delirium. Enhanced clinical management of complex syndromes such as delirium may be influenced most by a combination of education, practice, and mentoring methods. Use of simulation as an adjunct teaching method is a promising strategy that may enhance care of patients with delirium. This QI project demonstrated positive educational and clinical trends in a VA setting. More studies, including randomized clinical trials, are needed in a variety of settings to further test these strategies.
Acknowledgments
The authors give special thanks to Brigid Wilson, PhD, Heather O’Leary, RN, and Patrick Kilroy, SN, for their assistance in this project. The project was developed by the Cleveland VAMC interdisciplinary delirium resource team with support of a VA T-21 grant and the VISN 10 Geriatric Research Education and Clinical Centers.
1. ICU Delirium and Cognitive Impairment Study Group, Center for Health Services Research, Vanderbilt University Medical Center. Delirium prevention and safety: starting with the ABCDEF’s. http://www.icudelirium.org/medicalprofessionals .html. Accessed November 9, 2016.
2. Ely EW, Siegel MD, Inouye SK. Delirium in the intensive care unit: an under-recognized syndrome of organ dysfunction. Semin Respir Crit Care Med. 2001;22(2):115-126.
3. Inouye SK, Bogardus ST Jr, Vitagliano G, et al. Burden of illness score for elderly persons: risk adjustment incorporating the cumulative impact of diseases, physiologic abnormalities, and functional impairments. Med Care. 2003;41(1):70-83.
4. Marcantonio ER, Flacker JM, Wright RJ, Resnick NM. Reducing delirium after hip fracture: a randomized trial. J Am Geriatr Soc. 2001;49(5):516-522.
5. Foreman MD, Wakefield B, Culp K, Milisen K. Delirium in elderly patients: an overview of the state of the science. J Gerontol Nurs. 2001;27(4):12-20.
6. Inouye SK, van Dyck CH, Alessi CA, Balkin S, Siegal AP, Horwitz RI. Clarifying confusion: the confusion assessment method. A new method for detection of delirium. Ann Intern Med. 1990;113(12):941-948.
7. Maldonado JR. Pathoetiological model of delirium: a comprehensive understanding of the neurobiology of delirium and an evidence-based approach to prevention and treatment. Crit Care Clin. 2008;24(4):789-856.
8. Witlox J, Eurelings LS, de Jonghe JF, Kalisvaart KJ, Eikelenboom P, van Gool WA. Delirium in elderly patients and the risk of postdischarge mortality, institutionalization, and dementia: a meta-analysis. JAMA. 2010;304(4):443-451.
9. Leslie DL, Marcantonio ER, Zhang Y, Leo-Summers L, Inouye SK. One-year health care costs associated with delirium in the elderly population. Arch Intern Med. 2008;168(1):27-32.
10. Bruera E, Bush SH, Willey J, et al. Impact of delirium and recall on the level of distress in patients with advanced cancer and their family caregivers. Cancer. 2009;115(9):2004-2012.
11. Cohen MZ, Pace EA, Kaur G, Bruera E. Delirium in advanced cancer leading to distress in patients and family caregivers. J Palliat Care. 2009;25(3):164-171.
12. Patel RP, Gambrell M, Speroff T, et al. Delirium and sedation in the intensive care unit: survey of behaviors and attitudes of 1384 healthcare professionals. Crit Care Med. 2009;37(3):825-832.
13. Wei LA, Fearing MA, Sternberg EJ, Inouye SK. The confusion assessment method: a systematic review of current usage. J Am Geriatr Soc. 2008;56(5):823-830.
14. Neuman MD, Speck RM, Karlawish JH, Schwartz JS, Shea JA. Hospital protocols for the inpatient care of older adults: results from a statewide survey. J Am Geriatr Soc. 2010;58(10):1959-1964.
15. Idemoto BK. The assessment of delirium and depression in the intensive care unit [doctoral dissertation]. Cleveland, OH: Case Western Reserve University; 2005. No. 137.
16. Balas MC, Vasilevskis EE, Burke WJ, et al. Critical care nurses’ role in implementing the “ABCDE bundle” into practice. Crit Care Nurse. 2012;32(2):35-38, 40-47.
17. Barr J, Fraser GL, Puntillo K, et al; American College of Critical Care Medicine. Clinical practice guidelines for the management of pain, agitation, and delirium in adult patients in the intensive care unit: executive summary. Am J Health Syst Pharm. 2013;70(1):53-58.
18. Pun BT, Ely EW. The importance of diagnosing and managing ICU delirium. Chest. 2007;132(2):624-636.
19. Pisani MA, Araujo KL, Van Ness PH, Zhang Y, Ely EW, Inouye SK. A research algorithm to improve detection of delirium in the intensive care unit. Crit Care. 2006;10(4):R121.
20. Voyer P, Cole MG, McCusker J, St-Jacques S, Laplante J. Accuracy of nurse documentation of delirium symptoms in medical charts. Int J Nurs Pract. 2008;14(2):165-167.
21. Pandharipande P, Cotton BA, Shintani A, et al. Prevalence and risk factors for development of delirium in surgical and trauma intensive care unit patients. J Trauma. 2008;65(1):34-41.
22. Steis MR, Fick DM. Are nurses recognizing delirium? A systematic review. J Gerontol Nurs. 2008;34(9):40-48.
23. Yanamadala M, Wieland D, Heflin MT. Educational interventions to improve recognition of delirium: a systematic review. J Am Geriatr Soc. 2013;61(11):1983-1993.
24. Ramaswamy R, Dix EF, Drew JE, Diamond JJ, Inouye SK, Roehl BJ. Beyond grand rounds: a comprehensive and sequential intervention to improve identification of delirium. Gerontologist. 2011;51(1):122-131.
25. Lundström M, Olofsson B, Stenvall M, et al. Postoperative delirium in old patients with femoral neck fracture: a randomized intervention study. Aging Clin Exp Res. 2007;19(3):178-186.
26. Inouye SK. Predisposing and precipitating factors for delirium in hospitalized older patients. Dement Geriatr Cogn Disord. 1999;10(5):393-400.
27. Rudolph JL, Archambault E, Kelly B; VA Boston Delirium Task Force. A delirium risk modification program is associated with hospital outcomes. J Am Med Dir Assoc. 2014;15(12):957.e7-e11.
28. Hartford Institute for Geriatric Nursing. http://hartfordign.org. Accessed November 9, 2016.
29. Inouye SK. A practical program for preventing delirium in hospitalized elderly patients. Cleve Clin J Med. 2004;71(11):890-896.
30. Raurell-Torredà M, Olivet-Pujol J, Romero-Collado À, Malagon-Aguilera MC, Patiño-Masó J, Baltasar-Bagué A. Case-based learning and simulation: useful tools to enhance nurses’ education? Nonrandomized controlled trial. J Nurs Scholarsh. 2015;47(1):34-42.
31. Mast TA, Coulson LR, Meyer TC, et al. Self directed learning: wisdom from independent study programs. Res Med Educ. 1985;24:305-311.
32. Massachusetts Department of Higher Education Nursing Initiative—Simulation Scenario Library. http://www.mass.edu/nahi/Sim/Welcome.asp. Accessed November 1, 2016.
33. Vancouver Island Health Authority. Delirium in the older person: a medical emergency. Pre-Post Test. http://www.viha.ca/NR/rdonlyres/03D50FE6-AF90 -4F98-8B3B-7AE87A4B481D/0/preposttest.pdf. Reviewed August 2014. Accessed November 9, 2016.
1. ICU Delirium and Cognitive Impairment Study Group, Center for Health Services Research, Vanderbilt University Medical Center. Delirium prevention and safety: starting with the ABCDEF’s. http://www.icudelirium.org/medicalprofessionals .html. Accessed November 9, 2016.
2. Ely EW, Siegel MD, Inouye SK. Delirium in the intensive care unit: an under-recognized syndrome of organ dysfunction. Semin Respir Crit Care Med. 2001;22(2):115-126.
3. Inouye SK, Bogardus ST Jr, Vitagliano G, et al. Burden of illness score for elderly persons: risk adjustment incorporating the cumulative impact of diseases, physiologic abnormalities, and functional impairments. Med Care. 2003;41(1):70-83.
4. Marcantonio ER, Flacker JM, Wright RJ, Resnick NM. Reducing delirium after hip fracture: a randomized trial. J Am Geriatr Soc. 2001;49(5):516-522.
5. Foreman MD, Wakefield B, Culp K, Milisen K. Delirium in elderly patients: an overview of the state of the science. J Gerontol Nurs. 2001;27(4):12-20.
6. Inouye SK, van Dyck CH, Alessi CA, Balkin S, Siegal AP, Horwitz RI. Clarifying confusion: the confusion assessment method. A new method for detection of delirium. Ann Intern Med. 1990;113(12):941-948.
7. Maldonado JR. Pathoetiological model of delirium: a comprehensive understanding of the neurobiology of delirium and an evidence-based approach to prevention and treatment. Crit Care Clin. 2008;24(4):789-856.
8. Witlox J, Eurelings LS, de Jonghe JF, Kalisvaart KJ, Eikelenboom P, van Gool WA. Delirium in elderly patients and the risk of postdischarge mortality, institutionalization, and dementia: a meta-analysis. JAMA. 2010;304(4):443-451.
9. Leslie DL, Marcantonio ER, Zhang Y, Leo-Summers L, Inouye SK. One-year health care costs associated with delirium in the elderly population. Arch Intern Med. 2008;168(1):27-32.
10. Bruera E, Bush SH, Willey J, et al. Impact of delirium and recall on the level of distress in patients with advanced cancer and their family caregivers. Cancer. 2009;115(9):2004-2012.
11. Cohen MZ, Pace EA, Kaur G, Bruera E. Delirium in advanced cancer leading to distress in patients and family caregivers. J Palliat Care. 2009;25(3):164-171.
12. Patel RP, Gambrell M, Speroff T, et al. Delirium and sedation in the intensive care unit: survey of behaviors and attitudes of 1384 healthcare professionals. Crit Care Med. 2009;37(3):825-832.
13. Wei LA, Fearing MA, Sternberg EJ, Inouye SK. The confusion assessment method: a systematic review of current usage. J Am Geriatr Soc. 2008;56(5):823-830.
14. Neuman MD, Speck RM, Karlawish JH, Schwartz JS, Shea JA. Hospital protocols for the inpatient care of older adults: results from a statewide survey. J Am Geriatr Soc. 2010;58(10):1959-1964.
15. Idemoto BK. The assessment of delirium and depression in the intensive care unit [doctoral dissertation]. Cleveland, OH: Case Western Reserve University; 2005. No. 137.
16. Balas MC, Vasilevskis EE, Burke WJ, et al. Critical care nurses’ role in implementing the “ABCDE bundle” into practice. Crit Care Nurse. 2012;32(2):35-38, 40-47.
17. Barr J, Fraser GL, Puntillo K, et al; American College of Critical Care Medicine. Clinical practice guidelines for the management of pain, agitation, and delirium in adult patients in the intensive care unit: executive summary. Am J Health Syst Pharm. 2013;70(1):53-58.
18. Pun BT, Ely EW. The importance of diagnosing and managing ICU delirium. Chest. 2007;132(2):624-636.
19. Pisani MA, Araujo KL, Van Ness PH, Zhang Y, Ely EW, Inouye SK. A research algorithm to improve detection of delirium in the intensive care unit. Crit Care. 2006;10(4):R121.
20. Voyer P, Cole MG, McCusker J, St-Jacques S, Laplante J. Accuracy of nurse documentation of delirium symptoms in medical charts. Int J Nurs Pract. 2008;14(2):165-167.
21. Pandharipande P, Cotton BA, Shintani A, et al. Prevalence and risk factors for development of delirium in surgical and trauma intensive care unit patients. J Trauma. 2008;65(1):34-41.
22. Steis MR, Fick DM. Are nurses recognizing delirium? A systematic review. J Gerontol Nurs. 2008;34(9):40-48.
23. Yanamadala M, Wieland D, Heflin MT. Educational interventions to improve recognition of delirium: a systematic review. J Am Geriatr Soc. 2013;61(11):1983-1993.
24. Ramaswamy R, Dix EF, Drew JE, Diamond JJ, Inouye SK, Roehl BJ. Beyond grand rounds: a comprehensive and sequential intervention to improve identification of delirium. Gerontologist. 2011;51(1):122-131.
25. Lundström M, Olofsson B, Stenvall M, et al. Postoperative delirium in old patients with femoral neck fracture: a randomized intervention study. Aging Clin Exp Res. 2007;19(3):178-186.
26. Inouye SK. Predisposing and precipitating factors for delirium in hospitalized older patients. Dement Geriatr Cogn Disord. 1999;10(5):393-400.
27. Rudolph JL, Archambault E, Kelly B; VA Boston Delirium Task Force. A delirium risk modification program is associated with hospital outcomes. J Am Med Dir Assoc. 2014;15(12):957.e7-e11.
28. Hartford Institute for Geriatric Nursing. http://hartfordign.org. Accessed November 9, 2016.
29. Inouye SK. A practical program for preventing delirium in hospitalized elderly patients. Cleve Clin J Med. 2004;71(11):890-896.
30. Raurell-Torredà M, Olivet-Pujol J, Romero-Collado À, Malagon-Aguilera MC, Patiño-Masó J, Baltasar-Bagué A. Case-based learning and simulation: useful tools to enhance nurses’ education? Nonrandomized controlled trial. J Nurs Scholarsh. 2015;47(1):34-42.
31. Mast TA, Coulson LR, Meyer TC, et al. Self directed learning: wisdom from independent study programs. Res Med Educ. 1985;24:305-311.
32. Massachusetts Department of Higher Education Nursing Initiative—Simulation Scenario Library. http://www.mass.edu/nahi/Sim/Welcome.asp. Accessed November 1, 2016.
33. Vancouver Island Health Authority. Delirium in the older person: a medical emergency. Pre-Post Test. http://www.viha.ca/NR/rdonlyres/03D50FE6-AF90 -4F98-8B3B-7AE87A4B481D/0/preposttest.pdf. Reviewed August 2014. Accessed November 9, 2016.