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Many Patients With Cancer Visit EDs Before Diagnosis

Article Type
Changed
Mon, 11/11/2024 - 12:38

More than one third of patients with cancer visited an emergency department (ED) in the 90 days before their diagnosis, according to a study of medical records from Ontario, Canada.

Researchers examined Institute for Clinical Evaluative Sciences (ICES) data that had been gathered from January 1, 2014, to December 31, 2021. The study focused on patients aged 18 years or older with confirmed primary cancer diagnoses.

Factors associated with an increased likelihood of an ED visit ahead of diagnosis included having certain cancers, living in rural areas, and having less access to primary care, according to study author Keerat Grewal, MD, an emergency physician and clinician scientist at the Schwartz/Reisman Emergency Medicine Institute at Sinai Health in Toronto, Ontario, Canada, and coauthors.

“The ED is a distressing environment for patients to receive a possible cancer diagnosis,” the authors wrote. “Moreover, it is frequently ill equipped to provide ongoing continuity of care, which can lead patients down a poorly defined diagnostic pathway before receiving a confirmed diagnosis based on tissue and a subsequent treatment plan.”

The findings were published online on November 4 in CMAJ).
 

Neurologic Cancers Prominent

In an interview, Grewal said in an interview that the study reflects her desire as an emergency room physician to understand why so many patients with cancer get the initial reports about their disease from clinicians whom they often have just met for the first time.

Among patients with an ED visit before cancer diagnosis, 51.4% were admitted to hospital from the most recent visit.

Compared with patients with a family physician on whom they could rely for routine care, those who had no outpatient visits (odds ratio [OR], 2.09) or fewer than three outpatient visits (OR, 1.41) in the 6-30 months before cancer diagnosis were more likely to have an ED visit before their cancer diagnosis.

Other factors associated with increased odds of ED use before cancer diagnosis included rurality (OR, 1.15), residence in northern Ontario (northeast region: OR, 1.14 and northwest region: OR, 1.27 vs Toronto region), and living in the most marginalized areas (material resource deprivation: OR, 1.37 and housing stability: OR, 1.09 vs least marginalized area).

The researchers also found that patients with certain cancers were more likely to have sought care in the ED. They compared these cancers with breast cancer, which is often detected through screening.

“Patients with neurologic cancers had extremely high odds of ED use before cancer diagnosis,” the authors wrote. “This is likely because of the emergent nature of presentation, with acute neurologic symptoms such as weakness, confusion, or seizures, which require urgent assessment.” On the other hand, pancreatic, liver, or thoracic cancer can trigger nonspecific symptoms that may be ignored until they reach a crisis level that prompts an ED visit.

The limitations of the study included its inability to identify cancer-related ED visits and its narrow focus on patients in Ontario, according to the researchers. But the use of the ICES databases also allowed researchers access to a broader pool of data than are available in many other cases.

The findings in the new paper echo those of previous research, the authors noted. Research in the United Kingdom found that 24%-31% of cancer diagnoses involved the ED. In addition, a study of people enrolled in the US Medicare program, which serves patients aged 65 years or older, found that 23% were seen in the ED in the 30 days before diagnosis.
 

 

 

‘Unpacking the Data’

The current findings also are consistent with those of an International Cancer Benchmarking Partnership study that was published in 2022 in The Lancet Oncology, said Erika Nicholson, MHS, vice president of cancer systems and innovation at the Canadian Partnership Against Cancer. The latter study analyzed cancer registration and linked hospital admissions data from 14 jurisdictions in Australia, Canada, Denmark, New Zealand, Norway, and the United Kingdom.

“We see similar trends in terms of people visiting EDs and being diagnosed through EDs internationally,” Nicholson said. “We’re working with partners to put in place different strategies to address the challenges” that this phenomenon presents in terms of improving screening and follow-up care.

“Cancer is not one disease, but many diseases,” she said. “They present differently. We’re focused on really unpacking the data and understanding them.”

All this research highlights the need for more services and personnel to address cancer, including people who are trained to help patients cope after getting concerning news through emergency care, she said.

“That means having a system that fully supports you and helps you navigate through that diagnostic process,” Nicholson said. Addressing the added challenges for patients who don’t have secure housing is a special need, she added.

This study was supported by the Canadian Institutes of Health Research (CIHR). Grewal reported receiving grants from CIHR and the Canadian Association of Emergency Physicians. Nicholson reported no relevant financial relationships.

A version of this article appeared on Medscape.com.

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More than one third of patients with cancer visited an emergency department (ED) in the 90 days before their diagnosis, according to a study of medical records from Ontario, Canada.

Researchers examined Institute for Clinical Evaluative Sciences (ICES) data that had been gathered from January 1, 2014, to December 31, 2021. The study focused on patients aged 18 years or older with confirmed primary cancer diagnoses.

Factors associated with an increased likelihood of an ED visit ahead of diagnosis included having certain cancers, living in rural areas, and having less access to primary care, according to study author Keerat Grewal, MD, an emergency physician and clinician scientist at the Schwartz/Reisman Emergency Medicine Institute at Sinai Health in Toronto, Ontario, Canada, and coauthors.

“The ED is a distressing environment for patients to receive a possible cancer diagnosis,” the authors wrote. “Moreover, it is frequently ill equipped to provide ongoing continuity of care, which can lead patients down a poorly defined diagnostic pathway before receiving a confirmed diagnosis based on tissue and a subsequent treatment plan.”

The findings were published online on November 4 in CMAJ).
 

Neurologic Cancers Prominent

In an interview, Grewal said in an interview that the study reflects her desire as an emergency room physician to understand why so many patients with cancer get the initial reports about their disease from clinicians whom they often have just met for the first time.

Among patients with an ED visit before cancer diagnosis, 51.4% were admitted to hospital from the most recent visit.

Compared with patients with a family physician on whom they could rely for routine care, those who had no outpatient visits (odds ratio [OR], 2.09) or fewer than three outpatient visits (OR, 1.41) in the 6-30 months before cancer diagnosis were more likely to have an ED visit before their cancer diagnosis.

Other factors associated with increased odds of ED use before cancer diagnosis included rurality (OR, 1.15), residence in northern Ontario (northeast region: OR, 1.14 and northwest region: OR, 1.27 vs Toronto region), and living in the most marginalized areas (material resource deprivation: OR, 1.37 and housing stability: OR, 1.09 vs least marginalized area).

The researchers also found that patients with certain cancers were more likely to have sought care in the ED. They compared these cancers with breast cancer, which is often detected through screening.

“Patients with neurologic cancers had extremely high odds of ED use before cancer diagnosis,” the authors wrote. “This is likely because of the emergent nature of presentation, with acute neurologic symptoms such as weakness, confusion, or seizures, which require urgent assessment.” On the other hand, pancreatic, liver, or thoracic cancer can trigger nonspecific symptoms that may be ignored until they reach a crisis level that prompts an ED visit.

The limitations of the study included its inability to identify cancer-related ED visits and its narrow focus on patients in Ontario, according to the researchers. But the use of the ICES databases also allowed researchers access to a broader pool of data than are available in many other cases.

The findings in the new paper echo those of previous research, the authors noted. Research in the United Kingdom found that 24%-31% of cancer diagnoses involved the ED. In addition, a study of people enrolled in the US Medicare program, which serves patients aged 65 years or older, found that 23% were seen in the ED in the 30 days before diagnosis.
 

 

 

‘Unpacking the Data’

The current findings also are consistent with those of an International Cancer Benchmarking Partnership study that was published in 2022 in The Lancet Oncology, said Erika Nicholson, MHS, vice president of cancer systems and innovation at the Canadian Partnership Against Cancer. The latter study analyzed cancer registration and linked hospital admissions data from 14 jurisdictions in Australia, Canada, Denmark, New Zealand, Norway, and the United Kingdom.

“We see similar trends in terms of people visiting EDs and being diagnosed through EDs internationally,” Nicholson said. “We’re working with partners to put in place different strategies to address the challenges” that this phenomenon presents in terms of improving screening and follow-up care.

“Cancer is not one disease, but many diseases,” she said. “They present differently. We’re focused on really unpacking the data and understanding them.”

All this research highlights the need for more services and personnel to address cancer, including people who are trained to help patients cope after getting concerning news through emergency care, she said.

“That means having a system that fully supports you and helps you navigate through that diagnostic process,” Nicholson said. Addressing the added challenges for patients who don’t have secure housing is a special need, she added.

This study was supported by the Canadian Institutes of Health Research (CIHR). Grewal reported receiving grants from CIHR and the Canadian Association of Emergency Physicians. Nicholson reported no relevant financial relationships.

A version of this article appeared on Medscape.com.

More than one third of patients with cancer visited an emergency department (ED) in the 90 days before their diagnosis, according to a study of medical records from Ontario, Canada.

Researchers examined Institute for Clinical Evaluative Sciences (ICES) data that had been gathered from January 1, 2014, to December 31, 2021. The study focused on patients aged 18 years or older with confirmed primary cancer diagnoses.

Factors associated with an increased likelihood of an ED visit ahead of diagnosis included having certain cancers, living in rural areas, and having less access to primary care, according to study author Keerat Grewal, MD, an emergency physician and clinician scientist at the Schwartz/Reisman Emergency Medicine Institute at Sinai Health in Toronto, Ontario, Canada, and coauthors.

“The ED is a distressing environment for patients to receive a possible cancer diagnosis,” the authors wrote. “Moreover, it is frequently ill equipped to provide ongoing continuity of care, which can lead patients down a poorly defined diagnostic pathway before receiving a confirmed diagnosis based on tissue and a subsequent treatment plan.”

The findings were published online on November 4 in CMAJ).
 

Neurologic Cancers Prominent

In an interview, Grewal said in an interview that the study reflects her desire as an emergency room physician to understand why so many patients with cancer get the initial reports about their disease from clinicians whom they often have just met for the first time.

Among patients with an ED visit before cancer diagnosis, 51.4% were admitted to hospital from the most recent visit.

Compared with patients with a family physician on whom they could rely for routine care, those who had no outpatient visits (odds ratio [OR], 2.09) or fewer than three outpatient visits (OR, 1.41) in the 6-30 months before cancer diagnosis were more likely to have an ED visit before their cancer diagnosis.

Other factors associated with increased odds of ED use before cancer diagnosis included rurality (OR, 1.15), residence in northern Ontario (northeast region: OR, 1.14 and northwest region: OR, 1.27 vs Toronto region), and living in the most marginalized areas (material resource deprivation: OR, 1.37 and housing stability: OR, 1.09 vs least marginalized area).

The researchers also found that patients with certain cancers were more likely to have sought care in the ED. They compared these cancers with breast cancer, which is often detected through screening.

“Patients with neurologic cancers had extremely high odds of ED use before cancer diagnosis,” the authors wrote. “This is likely because of the emergent nature of presentation, with acute neurologic symptoms such as weakness, confusion, or seizures, which require urgent assessment.” On the other hand, pancreatic, liver, or thoracic cancer can trigger nonspecific symptoms that may be ignored until they reach a crisis level that prompts an ED visit.

The limitations of the study included its inability to identify cancer-related ED visits and its narrow focus on patients in Ontario, according to the researchers. But the use of the ICES databases also allowed researchers access to a broader pool of data than are available in many other cases.

The findings in the new paper echo those of previous research, the authors noted. Research in the United Kingdom found that 24%-31% of cancer diagnoses involved the ED. In addition, a study of people enrolled in the US Medicare program, which serves patients aged 65 years or older, found that 23% were seen in the ED in the 30 days before diagnosis.
 

 

 

‘Unpacking the Data’

The current findings also are consistent with those of an International Cancer Benchmarking Partnership study that was published in 2022 in The Lancet Oncology, said Erika Nicholson, MHS, vice president of cancer systems and innovation at the Canadian Partnership Against Cancer. The latter study analyzed cancer registration and linked hospital admissions data from 14 jurisdictions in Australia, Canada, Denmark, New Zealand, Norway, and the United Kingdom.

“We see similar trends in terms of people visiting EDs and being diagnosed through EDs internationally,” Nicholson said. “We’re working with partners to put in place different strategies to address the challenges” that this phenomenon presents in terms of improving screening and follow-up care.

“Cancer is not one disease, but many diseases,” she said. “They present differently. We’re focused on really unpacking the data and understanding them.”

All this research highlights the need for more services and personnel to address cancer, including people who are trained to help patients cope after getting concerning news through emergency care, she said.

“That means having a system that fully supports you and helps you navigate through that diagnostic process,” Nicholson said. Addressing the added challenges for patients who don’t have secure housing is a special need, she added.

This study was supported by the Canadian Institutes of Health Research (CIHR). Grewal reported receiving grants from CIHR and the Canadian Association of Emergency Physicians. Nicholson reported no relevant financial relationships.

A version of this article appeared on Medscape.com.

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Plasma Omega-6 and Omega-3 Fatty Acids Inversely Associated With Cancer

Article Type
Changed
Wed, 11/13/2024 - 03:09

 

TOPLINE:

Higher plasma levels of omega-6 and omega-3 fatty acids are associated with a lower incidence of cancer. However, omega-3 fatty acids are linked to an increased risk for prostate cancer, specifically.

METHODOLOGY:

  • Researchers looked for associations of plasma omega-3 and omega-6 polyunsaturated fatty acids (PUFAs) with the incidence of cancer overall and 19 site-specific cancers in the large population-based prospective UK Biobank cohort.
  • They included 253,138 participants aged 37-73 years who were followed for an average of 12.9 years, with 29,838 diagnosed with cancer.
  • Plasma levels of omega-3 and omega-6 fatty acids were measured using nuclear magnetic resonance and expressed as percentages of total fatty acids.
  • Participants with cancer diagnoses at baseline, those who withdrew from the study, and those with missing data on plasma PUFAs were excluded.
  • The study adjusted for multiple covariates, including age, sex, ethnicity, socioeconomic status, lifestyle behaviors, and family history of diseases.

TAKEAWAY:

  • Higher plasma levels of omega-6 and omega-3 fatty acids were associated with a 2% and 1% reduction in overall cancer risk per SD increase, respectively (P = .001 and P = .03).
  • Omega-6 fatty acids were inversely associated with 14 site-specific cancers, whereas omega-3 fatty acids were inversely associated with five site-specific cancers.
  • Prostate cancer was positively associated with omega-3 fatty acids, with a 3% increased risk per SD increase (P = .049).
  • A higher omega-6/omega-3 ratio was associated with an increased risk for overall cancer, and three site-specific cancers showed positive associations with the ratio. “Each standard deviation increase, corresponding to a 13.13 increase in the omega ratio, was associated with a 2% increase in the risk of rectum cancer,” for example, the authors wrote.

IN PRACTICE:

“Overall, our findings provide support for possible small net protective roles of omega-3 and omega-6 PUFAs in the development of new cancer incidence. Our study also suggests that the usage of circulating blood biomarkers captures different aspects of dietary intake, reduces measurement errors, and thus enhances statistical power. The differential effects of omega-6% and omega-3% in age and sex subgroups warrant future investigation,” wrote the authors of the study.

SOURCE:

The study was led by Yuchen Zhang of the University of Georgia in Athens, Georgia. It was published online in the International Journal of Cancer.

LIMITATIONS:

The study’s potential for selective bias persists due to the participant sample skewing heavily toward European ancestry and White ethnicity. The number of events was small for some specific cancer sites, which may have limited the statistical power. The study focused on total omega-3 and omega-6 PUFAs, with only two individual fatty acids measured. Future studies are needed to examine the roles of other individual PUFAs and specific genetic variants. 

DISCLOSURES:

This study was supported by grants from the National Institute of General Medical Sciences of the National Institutes of Health. No relevant conflicts of interest were disclosed by the authors.
 

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

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TOPLINE:

Higher plasma levels of omega-6 and omega-3 fatty acids are associated with a lower incidence of cancer. However, omega-3 fatty acids are linked to an increased risk for prostate cancer, specifically.

METHODOLOGY:

  • Researchers looked for associations of plasma omega-3 and omega-6 polyunsaturated fatty acids (PUFAs) with the incidence of cancer overall and 19 site-specific cancers in the large population-based prospective UK Biobank cohort.
  • They included 253,138 participants aged 37-73 years who were followed for an average of 12.9 years, with 29,838 diagnosed with cancer.
  • Plasma levels of omega-3 and omega-6 fatty acids were measured using nuclear magnetic resonance and expressed as percentages of total fatty acids.
  • Participants with cancer diagnoses at baseline, those who withdrew from the study, and those with missing data on plasma PUFAs were excluded.
  • The study adjusted for multiple covariates, including age, sex, ethnicity, socioeconomic status, lifestyle behaviors, and family history of diseases.

TAKEAWAY:

  • Higher plasma levels of omega-6 and omega-3 fatty acids were associated with a 2% and 1% reduction in overall cancer risk per SD increase, respectively (P = .001 and P = .03).
  • Omega-6 fatty acids were inversely associated with 14 site-specific cancers, whereas omega-3 fatty acids were inversely associated with five site-specific cancers.
  • Prostate cancer was positively associated with omega-3 fatty acids, with a 3% increased risk per SD increase (P = .049).
  • A higher omega-6/omega-3 ratio was associated with an increased risk for overall cancer, and three site-specific cancers showed positive associations with the ratio. “Each standard deviation increase, corresponding to a 13.13 increase in the omega ratio, was associated with a 2% increase in the risk of rectum cancer,” for example, the authors wrote.

IN PRACTICE:

“Overall, our findings provide support for possible small net protective roles of omega-3 and omega-6 PUFAs in the development of new cancer incidence. Our study also suggests that the usage of circulating blood biomarkers captures different aspects of dietary intake, reduces measurement errors, and thus enhances statistical power. The differential effects of omega-6% and omega-3% in age and sex subgroups warrant future investigation,” wrote the authors of the study.

SOURCE:

The study was led by Yuchen Zhang of the University of Georgia in Athens, Georgia. It was published online in the International Journal of Cancer.

LIMITATIONS:

The study’s potential for selective bias persists due to the participant sample skewing heavily toward European ancestry and White ethnicity. The number of events was small for some specific cancer sites, which may have limited the statistical power. The study focused on total omega-3 and omega-6 PUFAs, with only two individual fatty acids measured. Future studies are needed to examine the roles of other individual PUFAs and specific genetic variants. 

DISCLOSURES:

This study was supported by grants from the National Institute of General Medical Sciences of the National Institutes of Health. No relevant conflicts of interest were disclosed by the authors.
 

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

 

TOPLINE:

Higher plasma levels of omega-6 and omega-3 fatty acids are associated with a lower incidence of cancer. However, omega-3 fatty acids are linked to an increased risk for prostate cancer, specifically.

METHODOLOGY:

  • Researchers looked for associations of plasma omega-3 and omega-6 polyunsaturated fatty acids (PUFAs) with the incidence of cancer overall and 19 site-specific cancers in the large population-based prospective UK Biobank cohort.
  • They included 253,138 participants aged 37-73 years who were followed for an average of 12.9 years, with 29,838 diagnosed with cancer.
  • Plasma levels of omega-3 and omega-6 fatty acids were measured using nuclear magnetic resonance and expressed as percentages of total fatty acids.
  • Participants with cancer diagnoses at baseline, those who withdrew from the study, and those with missing data on plasma PUFAs were excluded.
  • The study adjusted for multiple covariates, including age, sex, ethnicity, socioeconomic status, lifestyle behaviors, and family history of diseases.

TAKEAWAY:

  • Higher plasma levels of omega-6 and omega-3 fatty acids were associated with a 2% and 1% reduction in overall cancer risk per SD increase, respectively (P = .001 and P = .03).
  • Omega-6 fatty acids were inversely associated with 14 site-specific cancers, whereas omega-3 fatty acids were inversely associated with five site-specific cancers.
  • Prostate cancer was positively associated with omega-3 fatty acids, with a 3% increased risk per SD increase (P = .049).
  • A higher omega-6/omega-3 ratio was associated with an increased risk for overall cancer, and three site-specific cancers showed positive associations with the ratio. “Each standard deviation increase, corresponding to a 13.13 increase in the omega ratio, was associated with a 2% increase in the risk of rectum cancer,” for example, the authors wrote.

IN PRACTICE:

“Overall, our findings provide support for possible small net protective roles of omega-3 and omega-6 PUFAs in the development of new cancer incidence. Our study also suggests that the usage of circulating blood biomarkers captures different aspects of dietary intake, reduces measurement errors, and thus enhances statistical power. The differential effects of omega-6% and omega-3% in age and sex subgroups warrant future investigation,” wrote the authors of the study.

SOURCE:

The study was led by Yuchen Zhang of the University of Georgia in Athens, Georgia. It was published online in the International Journal of Cancer.

LIMITATIONS:

The study’s potential for selective bias persists due to the participant sample skewing heavily toward European ancestry and White ethnicity. The number of events was small for some specific cancer sites, which may have limited the statistical power. The study focused on total omega-3 and omega-6 PUFAs, with only two individual fatty acids measured. Future studies are needed to examine the roles of other individual PUFAs and specific genetic variants. 

DISCLOSURES:

This study was supported by grants from the National Institute of General Medical Sciences of the National Institutes of Health. No relevant conflicts of interest were disclosed by the authors.
 

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

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Disparities in Skin Cancer Outcomes in the Latine/Hispanic Population

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Display Headline
Disparities in Skin Cancer Outcomes in the Latine/Hispanic Population

The Latine/Hispanic population in the United States comprises one of the largest and youngest skin of color communities.1,2 In 2020, this group accounted for 19% of all Americans—a percentage expected to increase to more than 25% by 2060.3

It must be emphasized that the Latine/Hispanic community in the United States is incredibly diverse.4 Approximately one-third of individuals in this group are foreign-born, and this community is made up of people from all racialized groups, religions, languages, and cultural identities.2 The heterogeneity of the Latine/Hispanic population translates into a wide representation of skin tones, reflecting a rich range of ancestries, ethnicities, and cultures. The percentage of individuals from each origin group may differ according to where they live in the United States; for instance, individuals who identify as Mexican comprise more than 80% of the Latine/Hispanic population in both Texas and California but only 17% in Florida, where more than half of Latine/Hispanic people identify as Cuban or Puerto Rican.4,5 As a result, when it comes to skin cancer epidemiology, variations in incidence and mortality may exist within each of these subgroups who identify as part of the Latine/Hispanic community, as reported for other cancers.6,7 Further research is needed to investigate these potential differences.Unfortunately, considerable health disparities persist among this rapidly growing population, including increased morbidity and mortality from melanoma and keratinocyte carcinomas (KCs) despite overall low lifetime incidence.8,9 In this review, the epidemiology, clinical manifestation, and ethnic disparities for skin cancer among the US Latine/Hispanic population are summarized; other factors impacting overall health and health care, including sociocultural factors, also are briefly discussed.

Terminology

Before a meaningful dialogue can be had about skin cancer in the Latine/Hispanic population, it is important to contextualize the terms used to identify this patient population, including Latino/Latine and Hispanic. In the early 1970s, the United States adopted the term Hispanic as a way of conglomerating Spanish-speaking individuals from Spain, the Caribbean, and Central and South America. The goal was to implement a common identifier that enabled the US government to study the economic and social development of these groups.10 Nevertheless, considerable differences (eg, variations in skin pigmentation, sun sensitivity) exist among Hispanic communities, with some having stronger European, African, or Amerindian influences due to colonization of their ­distinct countries.11

In contrast, Latino is a geographic term and refers to people with roots in Latin America and the Caribbean (Table 1).12,13 For example, a person from Brazil may be considered Latino but not Hispanic as Brazilians speak Portuguese; alternatively, Spaniards (who are considered Hispanic) are not Latino because Spain is not a Latin American country. A person from Mexico would be considered both Latino and Hispanic.13



More recently, the term Latine has been introduced as an alternative to the gender binary inherent in the Spanish language.12 For the purposes of this article, the terms Latine and Hispanic will be used interchangeably (unless otherwise specified) depending on how they are cited in the existing literature. Furthermore, the term non-Hispanic White (NHW) will be used to refer to individuals who have been socially ascribed or who self-identify as White in terms of race or ethnicity.

Melanoma

Melanoma, the deadliest form of skin cancer, is more likely to metastasize compared to other forms of skin cancer, including basal cell carcinoma (BCC) and squamous cell carcinoma (SCC). For Latine/Hispanic individuals living in the United States, the lifetime risk for melanoma is 1 in 200 compared to 1 in 33 for NHW individuals.14 While the lifetime risk for melanoma is low for the Latine/Hispanic population, Hispanic individuals are diagnosed with melanoma at an earlier age (mean, 56 years), and the rate of new cases is marginally higher for women (4.9 per 100,000) compared to men (4.8 per 100,000).15,16

Typical sites of melanoma manifestation in Latine/Hispanic individuals include the torso (most common site in Hispanic men), lower extremities (most common site in Hispanic women), and acral sites (palms, soles, and nails).9,16,17 Anatomic location also can vary according to age for both men and women. For men, the incidence of melanoma on the trunk appears to decrease with age, while the incidence on the head and neck may increase. For women, the incidence of melanoma on the lower extremities and hip increases with age. Cutaneous melanoma may manifest as a lesion with asymmetry, irregular borders, variation in pigmentation, large diameter (>6 mm), and evolution over time. In patients with skin of color, melanoma easily can be missed, as it also typically mimics more benign skin conditions and may develop from an existing black- or dark brown–­pigmented macule.18 The most common histologic subtype reported among Latine/Hispanic individuals in the United States is superficial spreading melanoma (20%–23%) followed by nodular melanoma and acral lentiginous melanoma.16,19 Until additional risk factors associated with melanoma susceptibility in Hispanic/Latine people are better elucidated, it may be appropriate to use an alternative acronym, such as CUBED (Table 2), in addition to the standard ABCDE system to help recognize potential melanoma on acral sites.18



Although the lifetime risk for melanoma among Hispanic individuals in the United States is lower than that for NHW individuals, Hispanic patients who are diagnosed with melanoma are more likely to present with increased tumor thickness and later-stage diagnosis compared to NHW individuals.8,16,20 In a recent study by Qian et al,8 advanced stage melanoma—defined as regional or distant stage disease—was present in 12.6% of NHW individuals. In contrast, the percentage of Hispanics with advanced disease was higher at 21%.8 Even after controlling for insurance and poverty status, Hispanic individuals were at greater risk than NHW individuals for late-stage diagnosis.16,20

Morbidity and mortality also have been shown to be higher in Hispanic patients with cutaneous melanoma.9,17 Reasons for this are multifactorial, with studies specific to melanoma citing challenges associated with early detection in individuals with deeply pigmented skin, a lack of awareness and knowledge about skin cancer among Latine/Hispanic patients, and treatment disparities.21-23 Moreover, very few studies have reported comprehensive data on patients from Africa and Latin America. Studies examining the role of genetic ancestry, epigenetic variants, and skin pigmentation and the risk for melanoma among the Latine/Hispanic population therefore are much needed.24

Keratinocyte Carcinomas

Keratinocyte carcinomas, also known as nonmelanoma skin cancers, include BCC and SCC. In comparison to the high-quality data available for melanoma from cancer registries, there are less reliable incidence data for KCs, especially among individuals with skin of color.25 As a result, KC epidemiology in the United States is drawn largely from case series (especially for individuals with skin of color) or claims data from small data sets often from geographically restricted regions within the United States.25,26

Basal Cell Carcinoma—Basal cell carcinoma is the most common malignant skin cancer in Latine/Hispanic individuals. Among those with lighter skin tones, the lifetime risk for BCC is about 30%.27,28 Men typically are affected at a higher rate than women, and the median age for diagnosis is 68 years.29 The development of BCC primarily is linked to lifetime accumulated UV radiation exposure. Even though BCC has a low mortality rate, it can lead to substantial morbidity due to factors such as tumor location, size, and rate of invasion, resulting in cosmetic and functional issues. Given its low metastatic potential, treatment of BCC typically is aimed at local control.30 Options for treatment include Mohs micrographic surgery (MMS), curettage and electrodessication, cryosurgery, photodynamic therapy, radiation therapy, and topical therapies. Systemic therapies are reserved for patients with locally advanced or metastatic disease.30

Latine/Hispanic patients characteristically present with BCCs on sun-exposed areas of the skin such as the head and neck region. In most patients, BCC manifests as a translucent pearly nodule with superficial telangiectasias and/or a nonhealing ulcer with a central depression and rolled nontender borders. However, in patients with skin of color, 66% of BCCs manifest with pigmentation; in fact, pigmented BCC (a subtype of BCC) has been shown to have a higher prevalence among Hispanic individuals, with an incidence twice as frequent as in NHW individuals.31 In addition, there are reports of increased tendency among Latine/Hispanic individuals to develop multiple BCCs.32,33

The relationship between UV exposure and KCs could explain the relatively higher incidence in populations with skin of color living in warmer climates, including Hispanic individuals.34 Even so, the development of BCCs appears to correlate directly with the degree of pigmentation in the skin, as it is most common in individuals with lighter skin tones within the Hispanic population.25,34,35 Other risk factors associated with BCC development include albinism, arsenic ingestion, chronic infections, immunosuppression, history of radiation treatment, and history of scars or ulcers due to physical/thermal trauma.35-37

Squamous Cell Carcinoma—Squamous cell carcinoma is the second most common skin cancer among Latine/Hispanic patients. In contrast with NHW patients, evidence supporting the role of UV exposure as a primary risk factor for SCC in patients with skin of color remains limited.25,38 Reports linking UV exposure and KCs in Hispanic and Black individuals predominantly include case series or population-based studies that do not consider levels of UV exposure.25

More recently, genetic ancestry analyses of a large multiethnic cohort found an increased risk for cutaneous SCC among Latine/Hispanic individuals with European ancestry compared to those with Native American or African ancestry; however, these genetic ancestry associations were attenuated (although not eliminated) after considering skin pigmentation (using loci associated with skin pigmentation), history of sun exposure (using actinic keratoses as a covariate for chronic sun exposure), and sun-protected vs sun-exposed anatomic sites, supporting the role of other environmental or sociocultural factors in the development of SCC.39 Similar to BCCs, immunosuppression, chronic scarring, skin irritation, and inflammatory disease also are documented risk factors.9,32

Among NHW individuals with lighter skin tones, SCC characteristically manifests on sun-exposed areas of the skin such as the head and neck region. Typically, a lesion may appear as a scaly erythematous papule or plaque that may be verrucous in nature or a nonhealing bleeding ulcer. In patients with more deeply pigmented skin, SCC tends to develop in the perianal region and on the penis and lower legs; pigmented lesions also may be present (as commonly reported in BCCs).9,32,36

Unfortunately, the lower incidence of KCs and lack of surveillance in populations with skin of color result in a low index of clinical suspicion, leading to delayed diagnoses and increased morbidity.40 Keratinocyte carcinomas are more costly to treat and require more health care resources for Latine/Hispanic and Black patients compared to their NHW counterparts; for example, KCs are associated with more ambulatory visits, more prescription medications, and greater cost on a per-person, per-year basis in Latine/Hispanic and Black patients compared with NHW patients.41 Moreover, a recent multicenter retrospective study found Hispanic patients had 17% larger MMS defects following treatment for KCs compared to NHW patients after adjustment for age, sex, and insurance type.42

Hispanic patients tend to present initially with SCCs in areas associated with advanced disease, such as the anogenital region, penis, and the lower extremities. Latine and Black men have the highest incidence of penile SCC, which is rare with high morbidity and mortality.32,43,44 The higher incidence of penile SCC among Hispanic individuals living in southern states could correspond to circumcision or HPV infection rates,44 ultimately impacting incidence.45

Dermatofibrosarcoma Protuberans

Dermatofibrosarcoma protuberans (DFSP) is a rare locally aggressive cutaneous sarcoma. According to population studies, overall incidence of DFSP is around 4.1 to 4.2 per million in the United States. Population-based studies on DFSP are limited, but available data suggest that Black patients as well as women have the highest incidence.46

Dermatofibrosarcoma protuberans is characterized by its capacity to invade surrounding tissues in a tentaclelike pattern.47 This characteristic often leads to inadequate initial resection of the lesion as well as a high recurrence rate despite its low metastatic potential.48 In early stages, DFSP typically manifests as an asymptomatic plaque with a slow growth rate. The color of the lesion ranges from reddish brown to flesh colored. The pigmented form of DFSP, known as Bednar tumor, is the most common among Black patients.47 As the tumor grows, it tends to become firm and nodular. The most common location for DFSP is on the trunk or the upper and lower extremities.47

Although current guidelines designate MMS as the first-line treatment for DFSP, the procedure may be inaccessible for certain populations.49 Patients with skin of color are more likely to undergo wide local excision (WLE) than MMS; however, WLE is less effective, with a recurrence rate of 30% compared with 3% in those treated with MMS.50 A retrospective cohort study of more than 2000 patients revealed that Hispanic and Black patients were less likely to undergo MMS. In addition, the authors noted that WLE recipients more commonly were deceased at the end of the study.51

Despite undergoing treatment for a primary DFSP, Hispanic patients also appear to be at increased risk for a second surgery.52 Additional studies are needed to elucidate the reasons behind higher recurrence rates in Latine/Hispanic patients compared to NHW individuals.

Factors Influencing Skin Cancer Outcomes

In recent years, racial and ethnic disparities in health care use, medical treatment, and quality of care among minoritized populations (including Latine/Hispanic groups) have been documented in the medical literature.53,54 These systemic inequities, which are rooted in structural racism,55 have contributed to poorer health outcomes, worse health status, and lower-quality care for minoritized patients living in the United States, including those impacted by dermatologic conditions.8,43,55-57 Becoming familiar with the sociocultural factors influencing skin cancer outcomes in the Latine/Hispanic community (including the lack of or inadequate health insurance, medical mistrust, language, and other cultural elements) and the paucity of research in this domain could help eliminate existing health inequities in this population.

Health Insurance Coverage—Although the uninsured rates in the Latine population have decreased since the passage of the Affordable Care Act (from 30% in 2013 to a low of 19% in 2017),58 inadequate health insurance coverage remains one of the largest barriers to health care access and a contributor to health disparities among the Latine community. Nearly 1 in 5 Latine individuals in the United States are uninsured compared to 8% of NHW individuals.58 Even though Latine individuals are more likely than non-Latine individuals to be part of the workforce, Latine employees are less likely to receive employer-sponsored coverage (27% vs 53% for NHW individuals).59

Not surprisingly, noncitizens are far less likely to be insured; this includes lawfully present immigrants (ie, permanent residents or green card holders, refugees, asylees, and others who are authorized to live in the United States temporarily or permanently) and undocumented immigrants (including individuals who entered the country without authorization and individuals who entered the country lawfully and stayed after their visa or status expired). The higher uninsured rate among noncitizens reflects not only limited access to employer-sponsored coverage but includes immigrant eligibility restrictions for federal programs such as Medicaid, the Children’s Health Insurance Program, and the Affordable Care Act Marketplace coverage.60

With approximately 9 million Americans living in mixed-status families (and nearly 10% of babies born each year with at least one undocumented parent), restrictive federal or state health care policies may extend beyond their stated target and impact both Latine citizens and noncitizens.61-65 For instance, Vargas et al64 found that both Latine citizens and noncitizens who lived in states with a high number of immigration-related laws had decreased odds of reporting optimal health as compared to Latine respondents in states with fewer immigration-related laws.Other barriers to enrollment include fears and confusion about program qualification, even if eligible.58

Medical Mistrust and Unfamiliarity—Mistrust of medical professionals has been shown to reduce patient adherence to treatment as prescribed by their medical provider and can negatively influence health outcomes.53 For racial/ethnic minoritized groups (including Latine/Hispanic patients), medical mistrust may be rooted in patients’ experience of discrimination in the health care setting. In a recent cross-sectional study, results from a survey of California adults (including 704 non-Hispanic Black, 711 Hispanic, and 913 NHW adults) found links between levels of medical mistrust and perceived discrimination based on race/ethnicity and language as well as perceived discrimination due to income level and type or lack of insurance.53 Interestingly, discrimination attributed to income level and insurance status remained after controlling for race/ethnicity and language. As expected, patients reliant on public insurance programs such as Medicare have been reported to have greater medical mistrust and suspicion compared with private insurance holders.65 Together, these findings support the notion that individuals who have low socioeconomic status and lack insurance coverage—disproportionately historically marginalized populations—are more likely to perceive discrimination in health care settings, have greater medical mistrust, and experience poorer health outcomes.53

It also is important for health care providers to consider that the US health care system is unfamiliar to many Latine/Hispanic individuals. Costs of medical services tend to be substantially higher in the United States, which can contribute to mistrust in the system.66 In addition, unethical medical experimentations have negatively affected both Latine and especially non-Hispanic Black populations, with long-lasting perceptions of deception and exploitation.67 These beliefs have undermined the trust that these populations have in clinicians and the health care system.54,67

Language and Other Cultural Elements—The inability to effectively communicate with health care providers could contribute to disparities in access to and use of health care services among Latine/Hispanic individuals. In a Medical Expenditure Panel Survey analysis, half of Hispanic patients with limited comfort speaking English did not have a usual source of care, and almost 90% of those with a usual source of care had a provider who spoke Spanish or used interpreters—indicating that few Hispanic individuals with limited comfort speaking English selected a usual source of care without language assistance.68,69 In other examples, language barriers ­contributed to disparities in cancer screening, and individuals with limited English proficiency were more likely to have difficulty understanding their physician due to language barriers.68,70

Improving cultural misconceptions regarding skin conditions, especially skin cancer, is another important consideration in the Latine/Hispanic community. Many Latine/Hispanic individuals wrongly believe they cannot develop skin cancer due to their darker skin tones and lack of family history.26 Moreover, multiple studies assessing melanoma knowledge and perception among participants with skin of color (including one with an equal number of Latine/Hispanic, Black/African American, and Asian individuals for a total of 120 participants) revealed that many were unaware of the risk for melanoma on acral sites.71 Participants expressed a need for more culturally relevant content from both clinicians and public materials (eg, images of acral melanoma in a person with skin of color).71-73

Paucity of Research—There is limited research regarding skin cancer risks and methods of prevention for patients with skin of color, including the Latine/Hispanic population. Efforts to engage and include patients from these communities, as well as clinicians or investigators from similar backgrounds, in clinical studies are desperately needed. It also is important that clinical studies collect data beyond population descriptors to account for both clinical and genetic variations observed in the Latine/Hispanic population. 

Latine/Hispanic individuals are quite diverse with many variable factors that may influence skin cancer outcomes. Often, cancer surveillance data are available in aggregate only, which could mask this heterogeneity.74 Rigorous studies that collect more granular data, including objective measures of skin pigmentation beyond self-reported Fitzpatrick skin type, culture/beliefs, lifestyle/behavior, geographic location, socioeconomic status, genetics, or epigenetics could help fully elucidate skin cancer risks and mitigate health disparities among individuals who identify as part of this population.

Final Thoughts

The Latine/Hispanic community—the largest ethnic minoritized group in the United States—is disproportionately affected by dermatologic health disparities. We hope this review helps to increase recognition of the clinical manifestations of skin cancer in Latine/Hispanic patients. Other factors that may impact skin cancer outcomes in this population include (but are not limited to) lack of or inadequate health insurance, medical mistrust, linguistic barriers and/or individual/cultural perspectives, along with limited research. Recognizing and addressing these (albeit complex) barriers that contribute to the inequitable access to health care in this population remains a critical step toward improving skin cancer outcomes.

References
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Dr. Valencia is from the Department of Internal Medicine, John Hopkins Bayview Medical Center, Baltimore, Maryland. Fabiola Ramirez is from the Paul L. Foster School of Medicine, Texas Tech University Health Sciences Center, El Paso. Claudia Dubocq-Ortiz is from the University of Puerto Rico School of Medicine, Medical School Campus, San Juan. Dr. Vasquez is from the Department of Dermatology, UT Southwestern Medical Center, Dallas.

The authors have no relevant financial disclosures to report.

Correspondence: Rebecca Vasquez, MD, Department of Dermatology, UT Southwestern Medical Center, 5323 Harry Hines Blvd, Box 9190, Dallas, TX 75390 (rebecca.vasquez@utsouthwestern.edu).

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Dr. Valencia is from the Department of Internal Medicine, John Hopkins Bayview Medical Center, Baltimore, Maryland. Fabiola Ramirez is from the Paul L. Foster School of Medicine, Texas Tech University Health Sciences Center, El Paso. Claudia Dubocq-Ortiz is from the University of Puerto Rico School of Medicine, Medical School Campus, San Juan. Dr. Vasquez is from the Department of Dermatology, UT Southwestern Medical Center, Dallas.

The authors have no relevant financial disclosures to report.

Correspondence: Rebecca Vasquez, MD, Department of Dermatology, UT Southwestern Medical Center, 5323 Harry Hines Blvd, Box 9190, Dallas, TX 75390 (rebecca.vasquez@utsouthwestern.edu).

Cutis. 2024 November;114(5):146-152. doi:10.12788/cutis.1129

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Dr. Valencia is from the Department of Internal Medicine, John Hopkins Bayview Medical Center, Baltimore, Maryland. Fabiola Ramirez is from the Paul L. Foster School of Medicine, Texas Tech University Health Sciences Center, El Paso. Claudia Dubocq-Ortiz is from the University of Puerto Rico School of Medicine, Medical School Campus, San Juan. Dr. Vasquez is from the Department of Dermatology, UT Southwestern Medical Center, Dallas.

The authors have no relevant financial disclosures to report.

Correspondence: Rebecca Vasquez, MD, Department of Dermatology, UT Southwestern Medical Center, 5323 Harry Hines Blvd, Box 9190, Dallas, TX 75390 (rebecca.vasquez@utsouthwestern.edu).

Cutis. 2024 November;114(5):146-152. doi:10.12788/cutis.1129

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The Latine/Hispanic population in the United States comprises one of the largest and youngest skin of color communities.1,2 In 2020, this group accounted for 19% of all Americans—a percentage expected to increase to more than 25% by 2060.3

It must be emphasized that the Latine/Hispanic community in the United States is incredibly diverse.4 Approximately one-third of individuals in this group are foreign-born, and this community is made up of people from all racialized groups, religions, languages, and cultural identities.2 The heterogeneity of the Latine/Hispanic population translates into a wide representation of skin tones, reflecting a rich range of ancestries, ethnicities, and cultures. The percentage of individuals from each origin group may differ according to where they live in the United States; for instance, individuals who identify as Mexican comprise more than 80% of the Latine/Hispanic population in both Texas and California but only 17% in Florida, where more than half of Latine/Hispanic people identify as Cuban or Puerto Rican.4,5 As a result, when it comes to skin cancer epidemiology, variations in incidence and mortality may exist within each of these subgroups who identify as part of the Latine/Hispanic community, as reported for other cancers.6,7 Further research is needed to investigate these potential differences.Unfortunately, considerable health disparities persist among this rapidly growing population, including increased morbidity and mortality from melanoma and keratinocyte carcinomas (KCs) despite overall low lifetime incidence.8,9 In this review, the epidemiology, clinical manifestation, and ethnic disparities for skin cancer among the US Latine/Hispanic population are summarized; other factors impacting overall health and health care, including sociocultural factors, also are briefly discussed.

Terminology

Before a meaningful dialogue can be had about skin cancer in the Latine/Hispanic population, it is important to contextualize the terms used to identify this patient population, including Latino/Latine and Hispanic. In the early 1970s, the United States adopted the term Hispanic as a way of conglomerating Spanish-speaking individuals from Spain, the Caribbean, and Central and South America. The goal was to implement a common identifier that enabled the US government to study the economic and social development of these groups.10 Nevertheless, considerable differences (eg, variations in skin pigmentation, sun sensitivity) exist among Hispanic communities, with some having stronger European, African, or Amerindian influences due to colonization of their ­distinct countries.11

In contrast, Latino is a geographic term and refers to people with roots in Latin America and the Caribbean (Table 1).12,13 For example, a person from Brazil may be considered Latino but not Hispanic as Brazilians speak Portuguese; alternatively, Spaniards (who are considered Hispanic) are not Latino because Spain is not a Latin American country. A person from Mexico would be considered both Latino and Hispanic.13



More recently, the term Latine has been introduced as an alternative to the gender binary inherent in the Spanish language.12 For the purposes of this article, the terms Latine and Hispanic will be used interchangeably (unless otherwise specified) depending on how they are cited in the existing literature. Furthermore, the term non-Hispanic White (NHW) will be used to refer to individuals who have been socially ascribed or who self-identify as White in terms of race or ethnicity.

Melanoma

Melanoma, the deadliest form of skin cancer, is more likely to metastasize compared to other forms of skin cancer, including basal cell carcinoma (BCC) and squamous cell carcinoma (SCC). For Latine/Hispanic individuals living in the United States, the lifetime risk for melanoma is 1 in 200 compared to 1 in 33 for NHW individuals.14 While the lifetime risk for melanoma is low for the Latine/Hispanic population, Hispanic individuals are diagnosed with melanoma at an earlier age (mean, 56 years), and the rate of new cases is marginally higher for women (4.9 per 100,000) compared to men (4.8 per 100,000).15,16

Typical sites of melanoma manifestation in Latine/Hispanic individuals include the torso (most common site in Hispanic men), lower extremities (most common site in Hispanic women), and acral sites (palms, soles, and nails).9,16,17 Anatomic location also can vary according to age for both men and women. For men, the incidence of melanoma on the trunk appears to decrease with age, while the incidence on the head and neck may increase. For women, the incidence of melanoma on the lower extremities and hip increases with age. Cutaneous melanoma may manifest as a lesion with asymmetry, irregular borders, variation in pigmentation, large diameter (>6 mm), and evolution over time. In patients with skin of color, melanoma easily can be missed, as it also typically mimics more benign skin conditions and may develop from an existing black- or dark brown–­pigmented macule.18 The most common histologic subtype reported among Latine/Hispanic individuals in the United States is superficial spreading melanoma (20%–23%) followed by nodular melanoma and acral lentiginous melanoma.16,19 Until additional risk factors associated with melanoma susceptibility in Hispanic/Latine people are better elucidated, it may be appropriate to use an alternative acronym, such as CUBED (Table 2), in addition to the standard ABCDE system to help recognize potential melanoma on acral sites.18



Although the lifetime risk for melanoma among Hispanic individuals in the United States is lower than that for NHW individuals, Hispanic patients who are diagnosed with melanoma are more likely to present with increased tumor thickness and later-stage diagnosis compared to NHW individuals.8,16,20 In a recent study by Qian et al,8 advanced stage melanoma—defined as regional or distant stage disease—was present in 12.6% of NHW individuals. In contrast, the percentage of Hispanics with advanced disease was higher at 21%.8 Even after controlling for insurance and poverty status, Hispanic individuals were at greater risk than NHW individuals for late-stage diagnosis.16,20

Morbidity and mortality also have been shown to be higher in Hispanic patients with cutaneous melanoma.9,17 Reasons for this are multifactorial, with studies specific to melanoma citing challenges associated with early detection in individuals with deeply pigmented skin, a lack of awareness and knowledge about skin cancer among Latine/Hispanic patients, and treatment disparities.21-23 Moreover, very few studies have reported comprehensive data on patients from Africa and Latin America. Studies examining the role of genetic ancestry, epigenetic variants, and skin pigmentation and the risk for melanoma among the Latine/Hispanic population therefore are much needed.24

Keratinocyte Carcinomas

Keratinocyte carcinomas, also known as nonmelanoma skin cancers, include BCC and SCC. In comparison to the high-quality data available for melanoma from cancer registries, there are less reliable incidence data for KCs, especially among individuals with skin of color.25 As a result, KC epidemiology in the United States is drawn largely from case series (especially for individuals with skin of color) or claims data from small data sets often from geographically restricted regions within the United States.25,26

Basal Cell Carcinoma—Basal cell carcinoma is the most common malignant skin cancer in Latine/Hispanic individuals. Among those with lighter skin tones, the lifetime risk for BCC is about 30%.27,28 Men typically are affected at a higher rate than women, and the median age for diagnosis is 68 years.29 The development of BCC primarily is linked to lifetime accumulated UV radiation exposure. Even though BCC has a low mortality rate, it can lead to substantial morbidity due to factors such as tumor location, size, and rate of invasion, resulting in cosmetic and functional issues. Given its low metastatic potential, treatment of BCC typically is aimed at local control.30 Options for treatment include Mohs micrographic surgery (MMS), curettage and electrodessication, cryosurgery, photodynamic therapy, radiation therapy, and topical therapies. Systemic therapies are reserved for patients with locally advanced or metastatic disease.30

Latine/Hispanic patients characteristically present with BCCs on sun-exposed areas of the skin such as the head and neck region. In most patients, BCC manifests as a translucent pearly nodule with superficial telangiectasias and/or a nonhealing ulcer with a central depression and rolled nontender borders. However, in patients with skin of color, 66% of BCCs manifest with pigmentation; in fact, pigmented BCC (a subtype of BCC) has been shown to have a higher prevalence among Hispanic individuals, with an incidence twice as frequent as in NHW individuals.31 In addition, there are reports of increased tendency among Latine/Hispanic individuals to develop multiple BCCs.32,33

The relationship between UV exposure and KCs could explain the relatively higher incidence in populations with skin of color living in warmer climates, including Hispanic individuals.34 Even so, the development of BCCs appears to correlate directly with the degree of pigmentation in the skin, as it is most common in individuals with lighter skin tones within the Hispanic population.25,34,35 Other risk factors associated with BCC development include albinism, arsenic ingestion, chronic infections, immunosuppression, history of radiation treatment, and history of scars or ulcers due to physical/thermal trauma.35-37

Squamous Cell Carcinoma—Squamous cell carcinoma is the second most common skin cancer among Latine/Hispanic patients. In contrast with NHW patients, evidence supporting the role of UV exposure as a primary risk factor for SCC in patients with skin of color remains limited.25,38 Reports linking UV exposure and KCs in Hispanic and Black individuals predominantly include case series or population-based studies that do not consider levels of UV exposure.25

More recently, genetic ancestry analyses of a large multiethnic cohort found an increased risk for cutaneous SCC among Latine/Hispanic individuals with European ancestry compared to those with Native American or African ancestry; however, these genetic ancestry associations were attenuated (although not eliminated) after considering skin pigmentation (using loci associated with skin pigmentation), history of sun exposure (using actinic keratoses as a covariate for chronic sun exposure), and sun-protected vs sun-exposed anatomic sites, supporting the role of other environmental or sociocultural factors in the development of SCC.39 Similar to BCCs, immunosuppression, chronic scarring, skin irritation, and inflammatory disease also are documented risk factors.9,32

Among NHW individuals with lighter skin tones, SCC characteristically manifests on sun-exposed areas of the skin such as the head and neck region. Typically, a lesion may appear as a scaly erythematous papule or plaque that may be verrucous in nature or a nonhealing bleeding ulcer. In patients with more deeply pigmented skin, SCC tends to develop in the perianal region and on the penis and lower legs; pigmented lesions also may be present (as commonly reported in BCCs).9,32,36

Unfortunately, the lower incidence of KCs and lack of surveillance in populations with skin of color result in a low index of clinical suspicion, leading to delayed diagnoses and increased morbidity.40 Keratinocyte carcinomas are more costly to treat and require more health care resources for Latine/Hispanic and Black patients compared to their NHW counterparts; for example, KCs are associated with more ambulatory visits, more prescription medications, and greater cost on a per-person, per-year basis in Latine/Hispanic and Black patients compared with NHW patients.41 Moreover, a recent multicenter retrospective study found Hispanic patients had 17% larger MMS defects following treatment for KCs compared to NHW patients after adjustment for age, sex, and insurance type.42

Hispanic patients tend to present initially with SCCs in areas associated with advanced disease, such as the anogenital region, penis, and the lower extremities. Latine and Black men have the highest incidence of penile SCC, which is rare with high morbidity and mortality.32,43,44 The higher incidence of penile SCC among Hispanic individuals living in southern states could correspond to circumcision or HPV infection rates,44 ultimately impacting incidence.45

Dermatofibrosarcoma Protuberans

Dermatofibrosarcoma protuberans (DFSP) is a rare locally aggressive cutaneous sarcoma. According to population studies, overall incidence of DFSP is around 4.1 to 4.2 per million in the United States. Population-based studies on DFSP are limited, but available data suggest that Black patients as well as women have the highest incidence.46

Dermatofibrosarcoma protuberans is characterized by its capacity to invade surrounding tissues in a tentaclelike pattern.47 This characteristic often leads to inadequate initial resection of the lesion as well as a high recurrence rate despite its low metastatic potential.48 In early stages, DFSP typically manifests as an asymptomatic plaque with a slow growth rate. The color of the lesion ranges from reddish brown to flesh colored. The pigmented form of DFSP, known as Bednar tumor, is the most common among Black patients.47 As the tumor grows, it tends to become firm and nodular. The most common location for DFSP is on the trunk or the upper and lower extremities.47

Although current guidelines designate MMS as the first-line treatment for DFSP, the procedure may be inaccessible for certain populations.49 Patients with skin of color are more likely to undergo wide local excision (WLE) than MMS; however, WLE is less effective, with a recurrence rate of 30% compared with 3% in those treated with MMS.50 A retrospective cohort study of more than 2000 patients revealed that Hispanic and Black patients were less likely to undergo MMS. In addition, the authors noted that WLE recipients more commonly were deceased at the end of the study.51

Despite undergoing treatment for a primary DFSP, Hispanic patients also appear to be at increased risk for a second surgery.52 Additional studies are needed to elucidate the reasons behind higher recurrence rates in Latine/Hispanic patients compared to NHW individuals.

Factors Influencing Skin Cancer Outcomes

In recent years, racial and ethnic disparities in health care use, medical treatment, and quality of care among minoritized populations (including Latine/Hispanic groups) have been documented in the medical literature.53,54 These systemic inequities, which are rooted in structural racism,55 have contributed to poorer health outcomes, worse health status, and lower-quality care for minoritized patients living in the United States, including those impacted by dermatologic conditions.8,43,55-57 Becoming familiar with the sociocultural factors influencing skin cancer outcomes in the Latine/Hispanic community (including the lack of or inadequate health insurance, medical mistrust, language, and other cultural elements) and the paucity of research in this domain could help eliminate existing health inequities in this population.

Health Insurance Coverage—Although the uninsured rates in the Latine population have decreased since the passage of the Affordable Care Act (from 30% in 2013 to a low of 19% in 2017),58 inadequate health insurance coverage remains one of the largest barriers to health care access and a contributor to health disparities among the Latine community. Nearly 1 in 5 Latine individuals in the United States are uninsured compared to 8% of NHW individuals.58 Even though Latine individuals are more likely than non-Latine individuals to be part of the workforce, Latine employees are less likely to receive employer-sponsored coverage (27% vs 53% for NHW individuals).59

Not surprisingly, noncitizens are far less likely to be insured; this includes lawfully present immigrants (ie, permanent residents or green card holders, refugees, asylees, and others who are authorized to live in the United States temporarily or permanently) and undocumented immigrants (including individuals who entered the country without authorization and individuals who entered the country lawfully and stayed after their visa or status expired). The higher uninsured rate among noncitizens reflects not only limited access to employer-sponsored coverage but includes immigrant eligibility restrictions for federal programs such as Medicaid, the Children’s Health Insurance Program, and the Affordable Care Act Marketplace coverage.60

With approximately 9 million Americans living in mixed-status families (and nearly 10% of babies born each year with at least one undocumented parent), restrictive federal or state health care policies may extend beyond their stated target and impact both Latine citizens and noncitizens.61-65 For instance, Vargas et al64 found that both Latine citizens and noncitizens who lived in states with a high number of immigration-related laws had decreased odds of reporting optimal health as compared to Latine respondents in states with fewer immigration-related laws.Other barriers to enrollment include fears and confusion about program qualification, even if eligible.58

Medical Mistrust and Unfamiliarity—Mistrust of medical professionals has been shown to reduce patient adherence to treatment as prescribed by their medical provider and can negatively influence health outcomes.53 For racial/ethnic minoritized groups (including Latine/Hispanic patients), medical mistrust may be rooted in patients’ experience of discrimination in the health care setting. In a recent cross-sectional study, results from a survey of California adults (including 704 non-Hispanic Black, 711 Hispanic, and 913 NHW adults) found links between levels of medical mistrust and perceived discrimination based on race/ethnicity and language as well as perceived discrimination due to income level and type or lack of insurance.53 Interestingly, discrimination attributed to income level and insurance status remained after controlling for race/ethnicity and language. As expected, patients reliant on public insurance programs such as Medicare have been reported to have greater medical mistrust and suspicion compared with private insurance holders.65 Together, these findings support the notion that individuals who have low socioeconomic status and lack insurance coverage—disproportionately historically marginalized populations—are more likely to perceive discrimination in health care settings, have greater medical mistrust, and experience poorer health outcomes.53

It also is important for health care providers to consider that the US health care system is unfamiliar to many Latine/Hispanic individuals. Costs of medical services tend to be substantially higher in the United States, which can contribute to mistrust in the system.66 In addition, unethical medical experimentations have negatively affected both Latine and especially non-Hispanic Black populations, with long-lasting perceptions of deception and exploitation.67 These beliefs have undermined the trust that these populations have in clinicians and the health care system.54,67

Language and Other Cultural Elements—The inability to effectively communicate with health care providers could contribute to disparities in access to and use of health care services among Latine/Hispanic individuals. In a Medical Expenditure Panel Survey analysis, half of Hispanic patients with limited comfort speaking English did not have a usual source of care, and almost 90% of those with a usual source of care had a provider who spoke Spanish or used interpreters—indicating that few Hispanic individuals with limited comfort speaking English selected a usual source of care without language assistance.68,69 In other examples, language barriers ­contributed to disparities in cancer screening, and individuals with limited English proficiency were more likely to have difficulty understanding their physician due to language barriers.68,70

Improving cultural misconceptions regarding skin conditions, especially skin cancer, is another important consideration in the Latine/Hispanic community. Many Latine/Hispanic individuals wrongly believe they cannot develop skin cancer due to their darker skin tones and lack of family history.26 Moreover, multiple studies assessing melanoma knowledge and perception among participants with skin of color (including one with an equal number of Latine/Hispanic, Black/African American, and Asian individuals for a total of 120 participants) revealed that many were unaware of the risk for melanoma on acral sites.71 Participants expressed a need for more culturally relevant content from both clinicians and public materials (eg, images of acral melanoma in a person with skin of color).71-73

Paucity of Research—There is limited research regarding skin cancer risks and methods of prevention for patients with skin of color, including the Latine/Hispanic population. Efforts to engage and include patients from these communities, as well as clinicians or investigators from similar backgrounds, in clinical studies are desperately needed. It also is important that clinical studies collect data beyond population descriptors to account for both clinical and genetic variations observed in the Latine/Hispanic population. 

Latine/Hispanic individuals are quite diverse with many variable factors that may influence skin cancer outcomes. Often, cancer surveillance data are available in aggregate only, which could mask this heterogeneity.74 Rigorous studies that collect more granular data, including objective measures of skin pigmentation beyond self-reported Fitzpatrick skin type, culture/beliefs, lifestyle/behavior, geographic location, socioeconomic status, genetics, or epigenetics could help fully elucidate skin cancer risks and mitigate health disparities among individuals who identify as part of this population.

Final Thoughts

The Latine/Hispanic community—the largest ethnic minoritized group in the United States—is disproportionately affected by dermatologic health disparities. We hope this review helps to increase recognition of the clinical manifestations of skin cancer in Latine/Hispanic patients. Other factors that may impact skin cancer outcomes in this population include (but are not limited to) lack of or inadequate health insurance, medical mistrust, linguistic barriers and/or individual/cultural perspectives, along with limited research. Recognizing and addressing these (albeit complex) barriers that contribute to the inequitable access to health care in this population remains a critical step toward improving skin cancer outcomes.

The Latine/Hispanic population in the United States comprises one of the largest and youngest skin of color communities.1,2 In 2020, this group accounted for 19% of all Americans—a percentage expected to increase to more than 25% by 2060.3

It must be emphasized that the Latine/Hispanic community in the United States is incredibly diverse.4 Approximately one-third of individuals in this group are foreign-born, and this community is made up of people from all racialized groups, religions, languages, and cultural identities.2 The heterogeneity of the Latine/Hispanic population translates into a wide representation of skin tones, reflecting a rich range of ancestries, ethnicities, and cultures. The percentage of individuals from each origin group may differ according to where they live in the United States; for instance, individuals who identify as Mexican comprise more than 80% of the Latine/Hispanic population in both Texas and California but only 17% in Florida, where more than half of Latine/Hispanic people identify as Cuban or Puerto Rican.4,5 As a result, when it comes to skin cancer epidemiology, variations in incidence and mortality may exist within each of these subgroups who identify as part of the Latine/Hispanic community, as reported for other cancers.6,7 Further research is needed to investigate these potential differences.Unfortunately, considerable health disparities persist among this rapidly growing population, including increased morbidity and mortality from melanoma and keratinocyte carcinomas (KCs) despite overall low lifetime incidence.8,9 In this review, the epidemiology, clinical manifestation, and ethnic disparities for skin cancer among the US Latine/Hispanic population are summarized; other factors impacting overall health and health care, including sociocultural factors, also are briefly discussed.

Terminology

Before a meaningful dialogue can be had about skin cancer in the Latine/Hispanic population, it is important to contextualize the terms used to identify this patient population, including Latino/Latine and Hispanic. In the early 1970s, the United States adopted the term Hispanic as a way of conglomerating Spanish-speaking individuals from Spain, the Caribbean, and Central and South America. The goal was to implement a common identifier that enabled the US government to study the economic and social development of these groups.10 Nevertheless, considerable differences (eg, variations in skin pigmentation, sun sensitivity) exist among Hispanic communities, with some having stronger European, African, or Amerindian influences due to colonization of their ­distinct countries.11

In contrast, Latino is a geographic term and refers to people with roots in Latin America and the Caribbean (Table 1).12,13 For example, a person from Brazil may be considered Latino but not Hispanic as Brazilians speak Portuguese; alternatively, Spaniards (who are considered Hispanic) are not Latino because Spain is not a Latin American country. A person from Mexico would be considered both Latino and Hispanic.13



More recently, the term Latine has been introduced as an alternative to the gender binary inherent in the Spanish language.12 For the purposes of this article, the terms Latine and Hispanic will be used interchangeably (unless otherwise specified) depending on how they are cited in the existing literature. Furthermore, the term non-Hispanic White (NHW) will be used to refer to individuals who have been socially ascribed or who self-identify as White in terms of race or ethnicity.

Melanoma

Melanoma, the deadliest form of skin cancer, is more likely to metastasize compared to other forms of skin cancer, including basal cell carcinoma (BCC) and squamous cell carcinoma (SCC). For Latine/Hispanic individuals living in the United States, the lifetime risk for melanoma is 1 in 200 compared to 1 in 33 for NHW individuals.14 While the lifetime risk for melanoma is low for the Latine/Hispanic population, Hispanic individuals are diagnosed with melanoma at an earlier age (mean, 56 years), and the rate of new cases is marginally higher for women (4.9 per 100,000) compared to men (4.8 per 100,000).15,16

Typical sites of melanoma manifestation in Latine/Hispanic individuals include the torso (most common site in Hispanic men), lower extremities (most common site in Hispanic women), and acral sites (palms, soles, and nails).9,16,17 Anatomic location also can vary according to age for both men and women. For men, the incidence of melanoma on the trunk appears to decrease with age, while the incidence on the head and neck may increase. For women, the incidence of melanoma on the lower extremities and hip increases with age. Cutaneous melanoma may manifest as a lesion with asymmetry, irregular borders, variation in pigmentation, large diameter (>6 mm), and evolution over time. In patients with skin of color, melanoma easily can be missed, as it also typically mimics more benign skin conditions and may develop from an existing black- or dark brown–­pigmented macule.18 The most common histologic subtype reported among Latine/Hispanic individuals in the United States is superficial spreading melanoma (20%–23%) followed by nodular melanoma and acral lentiginous melanoma.16,19 Until additional risk factors associated with melanoma susceptibility in Hispanic/Latine people are better elucidated, it may be appropriate to use an alternative acronym, such as CUBED (Table 2), in addition to the standard ABCDE system to help recognize potential melanoma on acral sites.18



Although the lifetime risk for melanoma among Hispanic individuals in the United States is lower than that for NHW individuals, Hispanic patients who are diagnosed with melanoma are more likely to present with increased tumor thickness and later-stage diagnosis compared to NHW individuals.8,16,20 In a recent study by Qian et al,8 advanced stage melanoma—defined as regional or distant stage disease—was present in 12.6% of NHW individuals. In contrast, the percentage of Hispanics with advanced disease was higher at 21%.8 Even after controlling for insurance and poverty status, Hispanic individuals were at greater risk than NHW individuals for late-stage diagnosis.16,20

Morbidity and mortality also have been shown to be higher in Hispanic patients with cutaneous melanoma.9,17 Reasons for this are multifactorial, with studies specific to melanoma citing challenges associated with early detection in individuals with deeply pigmented skin, a lack of awareness and knowledge about skin cancer among Latine/Hispanic patients, and treatment disparities.21-23 Moreover, very few studies have reported comprehensive data on patients from Africa and Latin America. Studies examining the role of genetic ancestry, epigenetic variants, and skin pigmentation and the risk for melanoma among the Latine/Hispanic population therefore are much needed.24

Keratinocyte Carcinomas

Keratinocyte carcinomas, also known as nonmelanoma skin cancers, include BCC and SCC. In comparison to the high-quality data available for melanoma from cancer registries, there are less reliable incidence data for KCs, especially among individuals with skin of color.25 As a result, KC epidemiology in the United States is drawn largely from case series (especially for individuals with skin of color) or claims data from small data sets often from geographically restricted regions within the United States.25,26

Basal Cell Carcinoma—Basal cell carcinoma is the most common malignant skin cancer in Latine/Hispanic individuals. Among those with lighter skin tones, the lifetime risk for BCC is about 30%.27,28 Men typically are affected at a higher rate than women, and the median age for diagnosis is 68 years.29 The development of BCC primarily is linked to lifetime accumulated UV radiation exposure. Even though BCC has a low mortality rate, it can lead to substantial morbidity due to factors such as tumor location, size, and rate of invasion, resulting in cosmetic and functional issues. Given its low metastatic potential, treatment of BCC typically is aimed at local control.30 Options for treatment include Mohs micrographic surgery (MMS), curettage and electrodessication, cryosurgery, photodynamic therapy, radiation therapy, and topical therapies. Systemic therapies are reserved for patients with locally advanced or metastatic disease.30

Latine/Hispanic patients characteristically present with BCCs on sun-exposed areas of the skin such as the head and neck region. In most patients, BCC manifests as a translucent pearly nodule with superficial telangiectasias and/or a nonhealing ulcer with a central depression and rolled nontender borders. However, in patients with skin of color, 66% of BCCs manifest with pigmentation; in fact, pigmented BCC (a subtype of BCC) has been shown to have a higher prevalence among Hispanic individuals, with an incidence twice as frequent as in NHW individuals.31 In addition, there are reports of increased tendency among Latine/Hispanic individuals to develop multiple BCCs.32,33

The relationship between UV exposure and KCs could explain the relatively higher incidence in populations with skin of color living in warmer climates, including Hispanic individuals.34 Even so, the development of BCCs appears to correlate directly with the degree of pigmentation in the skin, as it is most common in individuals with lighter skin tones within the Hispanic population.25,34,35 Other risk factors associated with BCC development include albinism, arsenic ingestion, chronic infections, immunosuppression, history of radiation treatment, and history of scars or ulcers due to physical/thermal trauma.35-37

Squamous Cell Carcinoma—Squamous cell carcinoma is the second most common skin cancer among Latine/Hispanic patients. In contrast with NHW patients, evidence supporting the role of UV exposure as a primary risk factor for SCC in patients with skin of color remains limited.25,38 Reports linking UV exposure and KCs in Hispanic and Black individuals predominantly include case series or population-based studies that do not consider levels of UV exposure.25

More recently, genetic ancestry analyses of a large multiethnic cohort found an increased risk for cutaneous SCC among Latine/Hispanic individuals with European ancestry compared to those with Native American or African ancestry; however, these genetic ancestry associations were attenuated (although not eliminated) after considering skin pigmentation (using loci associated with skin pigmentation), history of sun exposure (using actinic keratoses as a covariate for chronic sun exposure), and sun-protected vs sun-exposed anatomic sites, supporting the role of other environmental or sociocultural factors in the development of SCC.39 Similar to BCCs, immunosuppression, chronic scarring, skin irritation, and inflammatory disease also are documented risk factors.9,32

Among NHW individuals with lighter skin tones, SCC characteristically manifests on sun-exposed areas of the skin such as the head and neck region. Typically, a lesion may appear as a scaly erythematous papule or plaque that may be verrucous in nature or a nonhealing bleeding ulcer. In patients with more deeply pigmented skin, SCC tends to develop in the perianal region and on the penis and lower legs; pigmented lesions also may be present (as commonly reported in BCCs).9,32,36

Unfortunately, the lower incidence of KCs and lack of surveillance in populations with skin of color result in a low index of clinical suspicion, leading to delayed diagnoses and increased morbidity.40 Keratinocyte carcinomas are more costly to treat and require more health care resources for Latine/Hispanic and Black patients compared to their NHW counterparts; for example, KCs are associated with more ambulatory visits, more prescription medications, and greater cost on a per-person, per-year basis in Latine/Hispanic and Black patients compared with NHW patients.41 Moreover, a recent multicenter retrospective study found Hispanic patients had 17% larger MMS defects following treatment for KCs compared to NHW patients after adjustment for age, sex, and insurance type.42

Hispanic patients tend to present initially with SCCs in areas associated with advanced disease, such as the anogenital region, penis, and the lower extremities. Latine and Black men have the highest incidence of penile SCC, which is rare with high morbidity and mortality.32,43,44 The higher incidence of penile SCC among Hispanic individuals living in southern states could correspond to circumcision or HPV infection rates,44 ultimately impacting incidence.45

Dermatofibrosarcoma Protuberans

Dermatofibrosarcoma protuberans (DFSP) is a rare locally aggressive cutaneous sarcoma. According to population studies, overall incidence of DFSP is around 4.1 to 4.2 per million in the United States. Population-based studies on DFSP are limited, but available data suggest that Black patients as well as women have the highest incidence.46

Dermatofibrosarcoma protuberans is characterized by its capacity to invade surrounding tissues in a tentaclelike pattern.47 This characteristic often leads to inadequate initial resection of the lesion as well as a high recurrence rate despite its low metastatic potential.48 In early stages, DFSP typically manifests as an asymptomatic plaque with a slow growth rate. The color of the lesion ranges from reddish brown to flesh colored. The pigmented form of DFSP, known as Bednar tumor, is the most common among Black patients.47 As the tumor grows, it tends to become firm and nodular. The most common location for DFSP is on the trunk or the upper and lower extremities.47

Although current guidelines designate MMS as the first-line treatment for DFSP, the procedure may be inaccessible for certain populations.49 Patients with skin of color are more likely to undergo wide local excision (WLE) than MMS; however, WLE is less effective, with a recurrence rate of 30% compared with 3% in those treated with MMS.50 A retrospective cohort study of more than 2000 patients revealed that Hispanic and Black patients were less likely to undergo MMS. In addition, the authors noted that WLE recipients more commonly were deceased at the end of the study.51

Despite undergoing treatment for a primary DFSP, Hispanic patients also appear to be at increased risk for a second surgery.52 Additional studies are needed to elucidate the reasons behind higher recurrence rates in Latine/Hispanic patients compared to NHW individuals.

Factors Influencing Skin Cancer Outcomes

In recent years, racial and ethnic disparities in health care use, medical treatment, and quality of care among minoritized populations (including Latine/Hispanic groups) have been documented in the medical literature.53,54 These systemic inequities, which are rooted in structural racism,55 have contributed to poorer health outcomes, worse health status, and lower-quality care for minoritized patients living in the United States, including those impacted by dermatologic conditions.8,43,55-57 Becoming familiar with the sociocultural factors influencing skin cancer outcomes in the Latine/Hispanic community (including the lack of or inadequate health insurance, medical mistrust, language, and other cultural elements) and the paucity of research in this domain could help eliminate existing health inequities in this population.

Health Insurance Coverage—Although the uninsured rates in the Latine population have decreased since the passage of the Affordable Care Act (from 30% in 2013 to a low of 19% in 2017),58 inadequate health insurance coverage remains one of the largest barriers to health care access and a contributor to health disparities among the Latine community. Nearly 1 in 5 Latine individuals in the United States are uninsured compared to 8% of NHW individuals.58 Even though Latine individuals are more likely than non-Latine individuals to be part of the workforce, Latine employees are less likely to receive employer-sponsored coverage (27% vs 53% for NHW individuals).59

Not surprisingly, noncitizens are far less likely to be insured; this includes lawfully present immigrants (ie, permanent residents or green card holders, refugees, asylees, and others who are authorized to live in the United States temporarily or permanently) and undocumented immigrants (including individuals who entered the country without authorization and individuals who entered the country lawfully and stayed after their visa or status expired). The higher uninsured rate among noncitizens reflects not only limited access to employer-sponsored coverage but includes immigrant eligibility restrictions for federal programs such as Medicaid, the Children’s Health Insurance Program, and the Affordable Care Act Marketplace coverage.60

With approximately 9 million Americans living in mixed-status families (and nearly 10% of babies born each year with at least one undocumented parent), restrictive federal or state health care policies may extend beyond their stated target and impact both Latine citizens and noncitizens.61-65 For instance, Vargas et al64 found that both Latine citizens and noncitizens who lived in states with a high number of immigration-related laws had decreased odds of reporting optimal health as compared to Latine respondents in states with fewer immigration-related laws.Other barriers to enrollment include fears and confusion about program qualification, even if eligible.58

Medical Mistrust and Unfamiliarity—Mistrust of medical professionals has been shown to reduce patient adherence to treatment as prescribed by their medical provider and can negatively influence health outcomes.53 For racial/ethnic minoritized groups (including Latine/Hispanic patients), medical mistrust may be rooted in patients’ experience of discrimination in the health care setting. In a recent cross-sectional study, results from a survey of California adults (including 704 non-Hispanic Black, 711 Hispanic, and 913 NHW adults) found links between levels of medical mistrust and perceived discrimination based on race/ethnicity and language as well as perceived discrimination due to income level and type or lack of insurance.53 Interestingly, discrimination attributed to income level and insurance status remained after controlling for race/ethnicity and language. As expected, patients reliant on public insurance programs such as Medicare have been reported to have greater medical mistrust and suspicion compared with private insurance holders.65 Together, these findings support the notion that individuals who have low socioeconomic status and lack insurance coverage—disproportionately historically marginalized populations—are more likely to perceive discrimination in health care settings, have greater medical mistrust, and experience poorer health outcomes.53

It also is important for health care providers to consider that the US health care system is unfamiliar to many Latine/Hispanic individuals. Costs of medical services tend to be substantially higher in the United States, which can contribute to mistrust in the system.66 In addition, unethical medical experimentations have negatively affected both Latine and especially non-Hispanic Black populations, with long-lasting perceptions of deception and exploitation.67 These beliefs have undermined the trust that these populations have in clinicians and the health care system.54,67

Language and Other Cultural Elements—The inability to effectively communicate with health care providers could contribute to disparities in access to and use of health care services among Latine/Hispanic individuals. In a Medical Expenditure Panel Survey analysis, half of Hispanic patients with limited comfort speaking English did not have a usual source of care, and almost 90% of those with a usual source of care had a provider who spoke Spanish or used interpreters—indicating that few Hispanic individuals with limited comfort speaking English selected a usual source of care without language assistance.68,69 In other examples, language barriers ­contributed to disparities in cancer screening, and individuals with limited English proficiency were more likely to have difficulty understanding their physician due to language barriers.68,70

Improving cultural misconceptions regarding skin conditions, especially skin cancer, is another important consideration in the Latine/Hispanic community. Many Latine/Hispanic individuals wrongly believe they cannot develop skin cancer due to their darker skin tones and lack of family history.26 Moreover, multiple studies assessing melanoma knowledge and perception among participants with skin of color (including one with an equal number of Latine/Hispanic, Black/African American, and Asian individuals for a total of 120 participants) revealed that many were unaware of the risk for melanoma on acral sites.71 Participants expressed a need for more culturally relevant content from both clinicians and public materials (eg, images of acral melanoma in a person with skin of color).71-73

Paucity of Research—There is limited research regarding skin cancer risks and methods of prevention for patients with skin of color, including the Latine/Hispanic population. Efforts to engage and include patients from these communities, as well as clinicians or investigators from similar backgrounds, in clinical studies are desperately needed. It also is important that clinical studies collect data beyond population descriptors to account for both clinical and genetic variations observed in the Latine/Hispanic population. 

Latine/Hispanic individuals are quite diverse with many variable factors that may influence skin cancer outcomes. Often, cancer surveillance data are available in aggregate only, which could mask this heterogeneity.74 Rigorous studies that collect more granular data, including objective measures of skin pigmentation beyond self-reported Fitzpatrick skin type, culture/beliefs, lifestyle/behavior, geographic location, socioeconomic status, genetics, or epigenetics could help fully elucidate skin cancer risks and mitigate health disparities among individuals who identify as part of this population.

Final Thoughts

The Latine/Hispanic community—the largest ethnic minoritized group in the United States—is disproportionately affected by dermatologic health disparities. We hope this review helps to increase recognition of the clinical manifestations of skin cancer in Latine/Hispanic patients. Other factors that may impact skin cancer outcomes in this population include (but are not limited to) lack of or inadequate health insurance, medical mistrust, linguistic barriers and/or individual/cultural perspectives, along with limited research. Recognizing and addressing these (albeit complex) barriers that contribute to the inequitable access to health care in this population remains a critical step toward improving skin cancer outcomes.

References
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  8. Qian Y, Johannet P, Sawyers A, et al. The ongoing racial disparities in melanoma: an analysis of the Surveillance, Epidemiology, and End Results database (1975-2016). J Am Acad Dermatol. 2021;84:1585-1593.
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  10. Cruzval-O’Reilly E, Lugo-Somolinos A. Melanoma in Hispanics: we may have it all wrong. Cutis. 2020;106:28-30.
  11. Borrell LN, Elhawary JR, Fuentes-Afflick E, et al. Race and genetic ancestry in medicine—a time for reckoning with racism. N Engl J Med. 2021;384:474-480.
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  13. Carrasquillo OY, Lambert J, Merritt BG. Comment on “Disparities in nonmelanoma skin cancer in Hispanic/Latino patients based on Mohs micrographic surgery defect size: a multicenter retrospective study.”J Am Acad Dermatol. 2022;87:E129-E130.
  14. American Cancer Society. Key statistics for melanoma skin cancer. Updated January 17, 2024. Accessed September 3, 2024. https://www.cancer.org/cancer/types/melanoma-skin-cancer/about/key-statistics.html
  15. National Cancer Institute. Melanoma of the skin: recent trends in SEER age-adjusted incidence rates, 2000-2021. Updated June 27, 2024. Accessed September 3, 2024. https://seer.cancer.gov/statistics-network/explorer/application.htmlsite=53&data_type=1&graph_type=2&compareBy=sex&chk_sex_3=3&chk_sex_2=2&rate_type=2&race=6&age_range=1&stage=101&advopt_precision=1&advopt_show_ci=on&hdn_view=0&advopt_display=2
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  24. Carvalho LAD, Aguiar FC, Smalley KSM, et al. Acral melanoma: new insights into the immune and genomic landscape. Neoplasia. 2023;46:100947.
  25. Kolitz E, Lopes F, Arffa M, et al. UV Exposure and the risk of keratinocyte carcinoma in skin of color: a systematic review. JAMA Dermatol. 2022;158:542-546.
  26. Lukowiak TM, Aizman L, Perz A, et al. Association of age, sex, race, and geographic region with variation of the ratio of basal cell to cutaneous squamous cell carcinomas in the United States. JAMA Dermatol. 2020;156:1192-1198.
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References
  1. Noe-Bustamnate L, Lopez MH, Krogstad JM. US Hispanic population surpassed 60 million in 2019, but growth has slowed. July 7, 2020. Accessed September 3, 2024. https://www.pewresearch.org/short-reads/2020/07/07/u-s-hispanic-population-surpassed-60-million-in-2019-but-growth-has-slowed/
  2. Frank C, Lopez MH. Hispanic Americans’ trust in and engagement with science. Pew Research Center. June 14, 2022. Accessed September 3, 2024. https://www.pewresearch.org/wp-content/uploads/sites/20/2022/06/PS_2022.06.14_hispanic-americans-science_REPORT.pdf
  3. US Census Bureau. Projections of the size and composition of the US population: 2014 to 2060. US Government Printing Office; 2015. Accessed September 5, 2024. https://www.census.gov/content/dam/Census/library/publications/2015/demo/p25-1143.pdf
  4. Zong J. A mosaic, not a monolith: a profile of the U.S. Latino population, 2000-2020. October 26, 2022. Accessed September 3, 2024. https://latino.ucla.edu/research/latino-population-2000-2020/
  5. Latinos in California, Texas, New York, Florida and New Jersey. Pew Research Center. March 19, 2004. Accessed September 3, 2024. https://www.pewresearch.org/hispanic/2004/03/19/latinos-in-california-texas-new-york-florida-and-new-jersey/
  6. Pinheiro PS, Sherman RL, Trapido EJ, et al. Cancer incidence in first generation US Hispanics: Cubans, Mexicans, Puerto Ricans, and new Latinos. Cancer Epidemiol Biomarkers Prev. 2009;18:2162-2169.
  7. Pinheiro PS, Callahan KE, Kobetz EN. Disaggregated Hispanic groups and cancer: importance, methodology, and current knowledge. In: Ramirez AG, Trapido EJ, eds. Advancing the Science of Cancer in Latinos. Springer; 2020:17-34.
  8. Qian Y, Johannet P, Sawyers A, et al. The ongoing racial disparities in melanoma: an analysis of the Surveillance, Epidemiology, and End Results database (1975-2016). J Am Acad Dermatol. 2021;84:1585-1593.
  9. Hogue L, Harvey VM. Basal cell carcinoma, squamous cell carcinoma, and cutaneous melanoma in skin of color patients. Dermatol Clin. 2019;37:519-526.
  10. Cruzval-O’Reilly E, Lugo-Somolinos A. Melanoma in Hispanics: we may have it all wrong. Cutis. 2020;106:28-30.
  11. Borrell LN, Elhawary JR, Fuentes-Afflick E, et al. Race and genetic ancestry in medicine—a time for reckoning with racism. N Engl J Med. 2021;384:474-480.
  12. Lopez MH, Krogstad JM, Passel JS. Who is Hispanic? September 5, 2023. Accessed September 3, 2024. https://www.pewresearch.org/short-reads/2023/09/05/who-is-hispanic/
  13. Carrasquillo OY, Lambert J, Merritt BG. Comment on “Disparities in nonmelanoma skin cancer in Hispanic/Latino patients based on Mohs micrographic surgery defect size: a multicenter retrospective study.”J Am Acad Dermatol. 2022;87:E129-E130.
  14. American Cancer Society. Key statistics for melanoma skin cancer. Updated January 17, 2024. Accessed September 3, 2024. https://www.cancer.org/cancer/types/melanoma-skin-cancer/about/key-statistics.html
  15. National Cancer Institute. Melanoma of the skin: recent trends in SEER age-adjusted incidence rates, 2000-2021. Updated June 27, 2024. Accessed September 3, 2024. https://seer.cancer.gov/statistics-network/explorer/application.htmlsite=53&data_type=1&graph_type=2&compareBy=sex&chk_sex_3=3&chk_sex_2=2&rate_type=2&race=6&age_range=1&stage=101&advopt_precision=1&advopt_show_ci=on&hdn_view=0&advopt_display=2
  16. Garnett E, Townsend J, Steele B, et al. Characteristics, rates, and trends of melanoma incidence among Hispanics in the USA. Cancer Causes Control. 2016;27:647-659.
  17. Higgins S, Nazemi A, Feinstein S, et al. Clinical presentations of melanoma in African Americans, Hispanics, and Asians. Dermatol Surg. 2019;45:791-801.
  18. Bristow IR, de Berker DA, Acland KM, et al. Clinical guidelines for the recognition of melanoma of the foot and nail unit. J Foot Ankle Res. 2010;3:25.
  19. Fernandez JM, Mata EM, Behbahani S, et al. Survival of Hispanic patients with cutaneous melanoma: a retrospective cohort analysis of 6016 cases from the National Cancer Database. J Am Acad Dermatol. 2023;88:1135-1138.
  20. Hu S, Sherman R, Arheart K, et al. Predictors of neighborhood risk for late-stage melanoma: addressing disparities through spatial analysis and area-based measures. J Investigative Dermatol. 2014;134:937-945.
  21. Buster KJ, You Z, Fouad M, et al. Skin cancer risk perceptions: a comparison across ethnicity, age, education, gender, and income. J Am Acad Dermatol. 2012;66:771-779.
  22. Halpern MT, Ward EM, Pavluck AL, et al. Association of insurance status and ethnicity with cancer stage at diagnosis for 12 cancer sites: a retrospective analysis. Lancet Oncology. 2008;9:222-231.
  23. Weiss J, Kirsner RS, Hu S. Trends in primary skin cancer prevention among US Hispanics: a systematic review. J Drugs Dermatol. 2012;11:580-586.
  24. Carvalho LAD, Aguiar FC, Smalley KSM, et al. Acral melanoma: new insights into the immune and genomic landscape. Neoplasia. 2023;46:100947.
  25. Kolitz E, Lopes F, Arffa M, et al. UV Exposure and the risk of keratinocyte carcinoma in skin of color: a systematic review. JAMA Dermatol. 2022;158:542-546.
  26. Lukowiak TM, Aizman L, Perz A, et al. Association of age, sex, race, and geographic region with variation of the ratio of basal cell to cutaneous squamous cell carcinomas in the United States. JAMA Dermatol. 2020;156:1192-1198.
  27. Basset-Seguin N, Herms F. Update in the management of basal cell carcinoma. Acta Derm Venereol. 2020;100:adv00140.
  28. McDaniel B, Badri T, Steele RB. Basal cell carcinoma. StatPearls [Internet]. Updated March 13, 2024. Accessed September 3, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482439/
  29. Dessinioti C, Antoniou C, Katsambas A, et al. Basal cell carcinoma: what’s new under the sun. Photochem Photobiol. 2010;86:481-491.
  30. Kim DP, Kus KJB, Ruiz E. Basal cell carcinoma review. Hematol Oncol Clin North Am. 2019;33:13-24.
  31. Bigler C, Feldman J, Hall E, et al. Pigmented basal cell carcinoma in Hispanics. J Am Acad Dermatol. 1996;34(5 pt 1):751-752.
  32. Higgins S, Nazemi A, Chow M, et al. Review of nonmelanoma skin cancer in African Americans, Hispanics, and Asians. Dermatol Surg. 2018;44:903-910.
  33. Byrd-Miles K, Toombs EL, Peck GL. Skin cancer in individuals of African, Asian, Latin-American, and American-Indian descent: differences in incidence, clinical presentation, and survival compared to Caucasians. J Drugs Dermatol. 2007;6:10-16.
  34. Rivas M, Rojas E, Calaf GM, et al. Association between non-melanoma and melanoma skin cancer rates, vitamin D and latitude. Oncol Lett. 2017;13:3787-3792.
  35. Bradford PT. Skin cancer in skin of color. Dermatol Nurs. 2009;21:170-177, 206.
  36. Davis DS, Robinson C, Callender VD. Skin cancer in women of color: epidemiology, pathogenesis and clinical manifestations. Int J Womens Dermatol. 2021;7:127-134.
  37. Maafs E, De la Barreda F, Delgado R, et al. Basal cell carcinoma of trunk and extremities. Int J Dermatol. 1997;36:622-628.
  38. Munjal A, Ferguson N. Skin cancer in skin of color. Dermatol Clin. 2023;41:481-489.
  39. Jorgenson E, Choquet H, Yin J, et al. Genetic ancestry, skin pigmentation, and the risk of cutaneous squamous cell carcinoma in Hispanic/Latino and non-Hispanic white populations. Commun Biol. 2020;3:765.
  40. Soliman YS, Mieczkowska K, Zhu TR, et al. Characterizing basal cell carcinoma in Hispanic individuals undergoing Mohs micrographic surgery: a 7-year retrospective review at an academic institution in the Bronx. Brit J Dermatol. 2022;187:597-599.
  41. Sierro TJ, Blumenthal LY, Hekmatjah J, et al. Differences in health care resource utilization and costs for keratinocyte carcinoma among racioethnic groups: a population-based study. J Am Acad Dermatol. 2022;86:373-378.
  42. Blumenthal LY, Arzeno J, Syder N, et al. Disparities in nonmelanoma skin cancer in Hispanic/Latino patients based on Mohs micrographic surgery defect size: a multicenter retrospective study. J Am Acad Dermatol. 2022;86:353-358.
  43. Slopnick EA, Kim SP, Kiechle JE, et al. Racial disparities differ for African Americans and Hispanics in the diagnosis and treatment of penile cancer. Urology. 2016;96:22-28.
  44. Goodman MT, Hernandez BY, Shvetsov YB. Demographic and pathologic differences in the incidence of invasive penile cancer in the United States, 1995-2003. Cancer Epidemiol Biomarkers Prev. 2007;16:1833-1839.
  45. Thompson EL, Rosen BL, Maness SB. Social determinants of health and human papillomavirus vaccination among young adults, National Health Interview Survey 2016. J Community Health. 2019;44:149-158.
  46. Hao X, Billings SD, Wu F, et al. Dermatofibrosarcoma protuberans: update on the diagnosis and treatment. J Clin Med. 2020;9:1752.
  47. Mosallaei D, Lee EB, Lobl M, et al. Rare cutaneous malignancies in skin of color. Dermatol Surg. 2022;48:606-612.
  48. Criscito MC, Martires KJ, Stein JA. Prognostic factors, treatment, and survival in dermatofibrosarcoma protuberans. JAMA Dermatol. 2016;152:1365-1371.
  49. Orenstein LAV, Nelson MM, Wolner Z, et al. Differences in outpatient dermatology encounter work relative value units and net payments by patient race, sex, and age. JAMA Dermatol. 2021;157:406-412.
  50. Lowe GC, Onajin O, Baum CL, et al. A comparison of Mohs micrographic surgery and wide local excision for treatment of dermatofibrosarcoma protuberans with long-term follow-up: the Mayo Clinic experience. Dermatol Surg. 2017;43:98-106.
  51. Moore KJ, Chang MS, Weiss J, et al. Racial and ethnic differences in the surgical treatment of dermatofibrosarcoma protuberans: a retrospective cohort analysis. J Am Acad Dermatol. 2022;87:245-247.
  52. Trofymenko O, Bordeaux JS, Zeitouni NC. Survival in patients with primary dermatofibrosarcoma protuberans: National Cancer Database analysis. J Am Acad Dermatol. 2018;78:1125-1134.
  53. Bazargan M, Cobb S, Assari S. Discrimination and medical mistrust in a racially and ethnically diverse sample of California adults. Ann Fam Med. 2021;19:4-15.
  54. Smedley BD, Stith AY, Nelson AR, eds. Unequal Treatment: Confronting Racial and Ethnic Disparities in Health Care. Washington, DC; 2003.
  55. Bailey ZD, Krieger N, Agenor M, et al. Structural racism and health inequities in the USA: evidence and interventions. Lancet. 2017;389:1453-1463.
  56. Tackett KJ, Jenkins F, Morrell DS, et al. Structural racism and its influence on the severity of atopic dermatitis in African American children. Pediatric Dermatol. 2020;37:142-146.
  57. Greif C, Srivastava D, Nijhawan RI. A retrospective cohort study of dermatofibrosarcoma protuberans at a large metropolitan academic center. JAAD Int. 2022;6:104-106.
  58. Office of the Assistant Secretary for Planning and Evaluation. Health insurance coverage and access to care among Latinos: recent rrends and key challenges (HP-2021-22). October 8, 2021. Accessed September 3, 2024. https://aspe.hhs.gov/reports/health-insurance-coverage-access-care-among-latinos
  59. Keisler-Starkey K, Bunch LN. Health insurance coverage in the United States: 2020 (Current Population Reports No. P60-274). US Census Bureau; 2021. https://www.census.gov/content/dam/Census/library/publications/2021/demo/p60-274.pdf
  60. Kaiser Family Foundation. Key facts on health coverage of immigrants. Updated June 26, 2024. Accessed September 3, 2024. https://www.kff.org/racial-equity-and-health-policy/fact-sheet/key-facts-on-health-coverage-of-immigrants/
  61. Pew Research Center. Unauthorized immigrants: length of residency, patterns of parenthood. Published December 1, 2011. Accessed October 28, 2024. https://www.pewresearch.org/race-and-ethnicity/2011/12/01/unauthorized-immigrants-length-of-residency-patterns-of-parenthood/
  62. Schneider J, Schmitt M. Understanding the relationship between racial discrimination and mental health among African American adults: a review. SAGE Open. 2015;5:1-10.
  63. Philbin MM, Flake M, Hatzenbuehler ML, et al. State-level immigration and immigrant-focused policies as drivers of Latino health disparities in the United States. Soc Sci Med. 2018;199:29-38.
  64. Vargas ED, Sanchez GR, Juarez M. The impact of punitive immigrant laws on the health of Latina/o Populations. Polit Policy. 2017;45:312-337.
  65. Sutton AL, He J, Edmonds MC, et al. Medical mistrust in Black breast cancer patients: acknowledging the roles of the trustor and the trustee. J Cancer Educ. 2019;34:600-607.
  66. Jacobs J. An overview of Latin American healthcare systems. Pacific Prime Latin America. July 31, 2023. Accessed September 3, 2024. https://www.pacificprime.lat/blog/an-overview-of-latin-american-healthcare-systems/
  67. CDC. Unfair and unjust practices and conditions harm Hispanic and Latino people and drive health disparities. May 15, 2024. Accessed September 3, 2024. https://www.cdc.gov/tobacco-health-equity/collection/hispanic-latino-unfair-and-unjust.html
  68. Hall IJ, Rim SH, Dasari S. Preventive care use among Hispanic adults with limited comfort speaking English: an analysis of the Medical Expenditure Panel Survey data. Prev Med. 2022;159:107042.
  69. Brach C, Chevarley FM. Demographics and health care access and utilization of limited-English-proficient and English-proficient Hispanics. Agency for Healthcare Research and Quality. February 2008. http://meps.ahrq.gov/mepsweb/data_files/publications//rf28/rf28.pdf
  70. Berdahl TA, Kirby JB. Patient-provider communication disparities by limited English proficiency (LEP): trends from the US Medical Expenditure Panel Survey, 2006-2015. J General Intern Med. 2019;34:1434-1440.
  71. Robinson JK, Joshi KM, Ortiz S, et al. Melanoma knowledge, perception, and awareness in ethnic minorities in Chicago: recommendations regarding education. Psychooncology. 2011;20:313-320.
  72. Robinson JK, Nodal M, Chavez L, et al. Enhancing the relevance of skin self-examination for Latinos. JAMA Dermatol. 2017;153:717-718.
  73. Buchanan Lunsford N, Berktold J, Holman DM, et al. Skin cancer knowledge, awareness, beliefs and preventive behaviors among black and hispanic men and women. Prev Med Rep. 2018;12:203-209.
  74. Madrigal JM, Correa-Mendez M, Arias JD, et al. Hispanic, Latino/a, Latinx, Latine: disentangling the identities of Hispanic/Latino Americans. National Cancer Institute Division of Cancer Epidemiology & Genetics. October 20, 2022. Accessed September 3, 2024. https://dceg.cancer.gov/about/diversity-inclusion/inclusivity-minute/2022/disentangling-identities-hispanic-latino-americans
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Practice Points

  • The Latine/Hispanic community—the largest ethnic minoritized group in the United States—is disproportionately affected by disparities in skin cancer outcomes.
  • Factors influencing skin cancer outcomes in Latine/Hispanic patients in the United States are complex and multidimensional, including lack of familiarity among dermatologists with skin cancer manifestation in this population compared to non-Hispanic White individuals as well as limited data elucidating risk factors for skin cancer in patients with skin of color and sociocultural factors.
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Community Outreach Benefits Dermatology Residents and Their Patients

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Community Outreach Benefits Dermatology Residents and Their Patients

The sun often is rising in the rearview mirror as I travel with the University of New Mexico dermatology team from Albuquerque to our satellite clinic in Gallup, New Mexico. This twice-monthly trip—with a group usually comprising an attending physician, residents, and medical students—provides an invaluable opportunity for me to take part in delivering care to a majority Native American population and connects our institution and its trainees to the state’s rural and indigenous cultures and communities.

Community outreach is an important initiative for many dermatology residency training programs. Engaging with the community outside the clinic setting allows residents to hone their clinical skills, interact with and meet new people, and help to improve access to health care, especially for members of underserved populations.

Limited access to health care remains a pressing issue in the United States, especially for underserved and rural communities. There currently is no standardized way to measure access to care, but multiple contributing factors have been identified, including but not limited to patient wait times and throughput, provider turnover, ratio of dermatologists to patient population, insurance type, and patient outcomes.1 Fortunately, there are many ways for dermatology residents to get involved and improve access to dermatologic services in their communities, including skin cancer screenings, free clinics, and teledermatology.

Skin Cancer Screenings

More than 40% of community outreach initiatives offered by dermatology residency programs are related to skin cancer screening and prevention.2 The American Academy of Dermatology’s free skin cancer check program (https://www.aad.org/member/career/volunteer/spot) offers a way to participate in or even host a skin cancer screening in your community. Since 1985, this program has identified nearly 300,000 suspicious lesions and more than 30,000 suspected melanomas. Resources for setting up a skin cancer screening in your community are available on the program’s website. Residents may take this opportunity to teach medical students how to perform full-body skin examinations and/or practice making independent decisions as the supervisor for medical trainees. Skin cancer screening events not only expand access to care in underserved communities but also help residents feel more connected to the local community, especially if they have moved to a new location for their residency training.

Free Clinics

Engaging in educational opportunities offered through residency programs is another way to participate in community outreach. In particular, many programs are affiliated with a School of Medicine within their institution that allows residents to spearhead volunteer opportunities such as working at a free clinic. In fact, more than 30% of initiatives offered at dermatology residency programs are free general dermatology clinics.2 Residents are in the unique position of being both learners themselves as well as educators to trainees.3 As part of our role, we can provide crucial specialty care to the community by working in concert with medical students and while also familiarizing ourselves with treating populations that we may not reach in our daily clinical work. For example, by participating in free clinics, we can provide care to vulnerable populations who typically may have financial or time barriers that prevent them from seeking care at the institution-associated clinic, including individuals experiencing homelessness, patients who are uninsured, and individuals who cannot take time off work to pursue medical care. Our presence in the community helps to reduce barriers to specialty care, particularly in the field of dermatology where the access shortage in the context of rising skin cancer rates prompts public health concerns.4

Teledermatology

Teledermatology became a way to extend our reach in the community more than ever before during the COVID-19 pandemic. Advances in audio, visual, and data telecommunication have been particularly helpful in dermatology, a specialty that relies heavily on visual cues for diagnosis. Synchronous, asynchronous, and hybrid teledermatology services implemented during the pandemic have gained favor among patients and dermatologists and are still applied in current practice.5,6

For example, in the state of New Mexico (where there is a severe shortage of board-certified dermatologists to care for the state’s population), teledermatology has allowed rural providers of all specialties to consult University of New Mexico dermatologists by sending clinical photographs along with patient information and history via secure messaging. Instead of having the patient travel hundreds of miles to see the nearest dermatologist for their skin condition or endure long wait times to get in to see a specialist, primary providers now can initiate treatment or work-up for their patient’s skin issue in a timely manner with the use of teledermatology to consult specialists.

Teledermatology has demonstrated cost-effectiveness, accuracy, and efficiency in conveniently expanding access to care. It offers patients and dermatologists flexibility in receiving and delivering health care, respectively.7 As residents, learning how to navigate this technologic frontier in health care delivery is imperative, as it will remain a prevalent tool in the future care of our communities, particularly in underserved areas.

Final Thoughts

Through community outreach initiatives, dermatology residents have an opportunity not only to enrich our education but also to connect with and become closer to our patients. Skin cancer screenings, free clinics, and teledermatology have provided ways to reach more communities and remain important aspects of dermatology residency.

References
  1. Patel B, Blalock TW. Defining “access to care” for dermatology at academic medical institutions. J Am Acad Dermatol. 2023;89:627-628. doi:10.1016/j.jaad.2023.03.014
  2. Fritsche M, Maglakelidze N, Zaenglein A, et al. Community outreach initiatives in dermatology: cross-sectional study. Arch Dermatol Res. 2023;315:2693-2695. doi:10.1007/s00403-023-02629-y
  3. Chiu LW. Teaching tips for dermatology residents. Cutis. 2024;113:E17-E19. doi:10.12788/cutis.1046
  4. Duniphin DD. Limited access to dermatology specialty care: barriers and teledermatology. Dermatol Pract Concept. 2023;13:E2023031. doi:10.5826/dpc.1301a31
  5. Ibrahim AE, Magdy M, Khalaf EM, et al. Teledermatology in the time of COVID-19. Int J Clin Pract. 2021;75:e15000. doi:10.1111/ijcp.15000
  6. Farr MA, Duvic M, Joshi TP. Teledermatology during COVID-19: an updated review. Am J Clin Dermatol. 2021;22:467-475. doi:10.1007/s40257-021-00601-y
  7. Lipner SR. Optimizing patient care with teledermatology: improving access, efficiency, and satisfaction. Cutis. 2024;114:63-64. doi:10.12788/cutis.1073
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From the Department of Dermatology, University of New Mexico, Albuquerque.

The author has no relevant financial disclosures to report.

Correspondence: Le Wen Chiu, MD, UNMH Dermatology Clinic, 1021 Medical Arts NE, Albuquerque, NM 87102 (LChiu@salud.unm.edu).

Cutis. 2024 October;114(4):E24-E25. doi:10.12788/cutis.1127

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The author has no relevant financial disclosures to report.

Correspondence: Le Wen Chiu, MD, UNMH Dermatology Clinic, 1021 Medical Arts NE, Albuquerque, NM 87102 (LChiu@salud.unm.edu).

Cutis. 2024 October;114(4):E24-E25. doi:10.12788/cutis.1127

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The author has no relevant financial disclosures to report.

Correspondence: Le Wen Chiu, MD, UNMH Dermatology Clinic, 1021 Medical Arts NE, Albuquerque, NM 87102 (LChiu@salud.unm.edu).

Cutis. 2024 October;114(4):E24-E25. doi:10.12788/cutis.1127

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The sun often is rising in the rearview mirror as I travel with the University of New Mexico dermatology team from Albuquerque to our satellite clinic in Gallup, New Mexico. This twice-monthly trip—with a group usually comprising an attending physician, residents, and medical students—provides an invaluable opportunity for me to take part in delivering care to a majority Native American population and connects our institution and its trainees to the state’s rural and indigenous cultures and communities.

Community outreach is an important initiative for many dermatology residency training programs. Engaging with the community outside the clinic setting allows residents to hone their clinical skills, interact with and meet new people, and help to improve access to health care, especially for members of underserved populations.

Limited access to health care remains a pressing issue in the United States, especially for underserved and rural communities. There currently is no standardized way to measure access to care, but multiple contributing factors have been identified, including but not limited to patient wait times and throughput, provider turnover, ratio of dermatologists to patient population, insurance type, and patient outcomes.1 Fortunately, there are many ways for dermatology residents to get involved and improve access to dermatologic services in their communities, including skin cancer screenings, free clinics, and teledermatology.

Skin Cancer Screenings

More than 40% of community outreach initiatives offered by dermatology residency programs are related to skin cancer screening and prevention.2 The American Academy of Dermatology’s free skin cancer check program (https://www.aad.org/member/career/volunteer/spot) offers a way to participate in or even host a skin cancer screening in your community. Since 1985, this program has identified nearly 300,000 suspicious lesions and more than 30,000 suspected melanomas. Resources for setting up a skin cancer screening in your community are available on the program’s website. Residents may take this opportunity to teach medical students how to perform full-body skin examinations and/or practice making independent decisions as the supervisor for medical trainees. Skin cancer screening events not only expand access to care in underserved communities but also help residents feel more connected to the local community, especially if they have moved to a new location for their residency training.

Free Clinics

Engaging in educational opportunities offered through residency programs is another way to participate in community outreach. In particular, many programs are affiliated with a School of Medicine within their institution that allows residents to spearhead volunteer opportunities such as working at a free clinic. In fact, more than 30% of initiatives offered at dermatology residency programs are free general dermatology clinics.2 Residents are in the unique position of being both learners themselves as well as educators to trainees.3 As part of our role, we can provide crucial specialty care to the community by working in concert with medical students and while also familiarizing ourselves with treating populations that we may not reach in our daily clinical work. For example, by participating in free clinics, we can provide care to vulnerable populations who typically may have financial or time barriers that prevent them from seeking care at the institution-associated clinic, including individuals experiencing homelessness, patients who are uninsured, and individuals who cannot take time off work to pursue medical care. Our presence in the community helps to reduce barriers to specialty care, particularly in the field of dermatology where the access shortage in the context of rising skin cancer rates prompts public health concerns.4

Teledermatology

Teledermatology became a way to extend our reach in the community more than ever before during the COVID-19 pandemic. Advances in audio, visual, and data telecommunication have been particularly helpful in dermatology, a specialty that relies heavily on visual cues for diagnosis. Synchronous, asynchronous, and hybrid teledermatology services implemented during the pandemic have gained favor among patients and dermatologists and are still applied in current practice.5,6

For example, in the state of New Mexico (where there is a severe shortage of board-certified dermatologists to care for the state’s population), teledermatology has allowed rural providers of all specialties to consult University of New Mexico dermatologists by sending clinical photographs along with patient information and history via secure messaging. Instead of having the patient travel hundreds of miles to see the nearest dermatologist for their skin condition or endure long wait times to get in to see a specialist, primary providers now can initiate treatment or work-up for their patient’s skin issue in a timely manner with the use of teledermatology to consult specialists.

Teledermatology has demonstrated cost-effectiveness, accuracy, and efficiency in conveniently expanding access to care. It offers patients and dermatologists flexibility in receiving and delivering health care, respectively.7 As residents, learning how to navigate this technologic frontier in health care delivery is imperative, as it will remain a prevalent tool in the future care of our communities, particularly in underserved areas.

Final Thoughts

Through community outreach initiatives, dermatology residents have an opportunity not only to enrich our education but also to connect with and become closer to our patients. Skin cancer screenings, free clinics, and teledermatology have provided ways to reach more communities and remain important aspects of dermatology residency.

The sun often is rising in the rearview mirror as I travel with the University of New Mexico dermatology team from Albuquerque to our satellite clinic in Gallup, New Mexico. This twice-monthly trip—with a group usually comprising an attending physician, residents, and medical students—provides an invaluable opportunity for me to take part in delivering care to a majority Native American population and connects our institution and its trainees to the state’s rural and indigenous cultures and communities.

Community outreach is an important initiative for many dermatology residency training programs. Engaging with the community outside the clinic setting allows residents to hone their clinical skills, interact with and meet new people, and help to improve access to health care, especially for members of underserved populations.

Limited access to health care remains a pressing issue in the United States, especially for underserved and rural communities. There currently is no standardized way to measure access to care, but multiple contributing factors have been identified, including but not limited to patient wait times and throughput, provider turnover, ratio of dermatologists to patient population, insurance type, and patient outcomes.1 Fortunately, there are many ways for dermatology residents to get involved and improve access to dermatologic services in their communities, including skin cancer screenings, free clinics, and teledermatology.

Skin Cancer Screenings

More than 40% of community outreach initiatives offered by dermatology residency programs are related to skin cancer screening and prevention.2 The American Academy of Dermatology’s free skin cancer check program (https://www.aad.org/member/career/volunteer/spot) offers a way to participate in or even host a skin cancer screening in your community. Since 1985, this program has identified nearly 300,000 suspicious lesions and more than 30,000 suspected melanomas. Resources for setting up a skin cancer screening in your community are available on the program’s website. Residents may take this opportunity to teach medical students how to perform full-body skin examinations and/or practice making independent decisions as the supervisor for medical trainees. Skin cancer screening events not only expand access to care in underserved communities but also help residents feel more connected to the local community, especially if they have moved to a new location for their residency training.

Free Clinics

Engaging in educational opportunities offered through residency programs is another way to participate in community outreach. In particular, many programs are affiliated with a School of Medicine within their institution that allows residents to spearhead volunteer opportunities such as working at a free clinic. In fact, more than 30% of initiatives offered at dermatology residency programs are free general dermatology clinics.2 Residents are in the unique position of being both learners themselves as well as educators to trainees.3 As part of our role, we can provide crucial specialty care to the community by working in concert with medical students and while also familiarizing ourselves with treating populations that we may not reach in our daily clinical work. For example, by participating in free clinics, we can provide care to vulnerable populations who typically may have financial or time barriers that prevent them from seeking care at the institution-associated clinic, including individuals experiencing homelessness, patients who are uninsured, and individuals who cannot take time off work to pursue medical care. Our presence in the community helps to reduce barriers to specialty care, particularly in the field of dermatology where the access shortage in the context of rising skin cancer rates prompts public health concerns.4

Teledermatology

Teledermatology became a way to extend our reach in the community more than ever before during the COVID-19 pandemic. Advances in audio, visual, and data telecommunication have been particularly helpful in dermatology, a specialty that relies heavily on visual cues for diagnosis. Synchronous, asynchronous, and hybrid teledermatology services implemented during the pandemic have gained favor among patients and dermatologists and are still applied in current practice.5,6

For example, in the state of New Mexico (where there is a severe shortage of board-certified dermatologists to care for the state’s population), teledermatology has allowed rural providers of all specialties to consult University of New Mexico dermatologists by sending clinical photographs along with patient information and history via secure messaging. Instead of having the patient travel hundreds of miles to see the nearest dermatologist for their skin condition or endure long wait times to get in to see a specialist, primary providers now can initiate treatment or work-up for their patient’s skin issue in a timely manner with the use of teledermatology to consult specialists.

Teledermatology has demonstrated cost-effectiveness, accuracy, and efficiency in conveniently expanding access to care. It offers patients and dermatologists flexibility in receiving and delivering health care, respectively.7 As residents, learning how to navigate this technologic frontier in health care delivery is imperative, as it will remain a prevalent tool in the future care of our communities, particularly in underserved areas.

Final Thoughts

Through community outreach initiatives, dermatology residents have an opportunity not only to enrich our education but also to connect with and become closer to our patients. Skin cancer screenings, free clinics, and teledermatology have provided ways to reach more communities and remain important aspects of dermatology residency.

References
  1. Patel B, Blalock TW. Defining “access to care” for dermatology at academic medical institutions. J Am Acad Dermatol. 2023;89:627-628. doi:10.1016/j.jaad.2023.03.014
  2. Fritsche M, Maglakelidze N, Zaenglein A, et al. Community outreach initiatives in dermatology: cross-sectional study. Arch Dermatol Res. 2023;315:2693-2695. doi:10.1007/s00403-023-02629-y
  3. Chiu LW. Teaching tips for dermatology residents. Cutis. 2024;113:E17-E19. doi:10.12788/cutis.1046
  4. Duniphin DD. Limited access to dermatology specialty care: barriers and teledermatology. Dermatol Pract Concept. 2023;13:E2023031. doi:10.5826/dpc.1301a31
  5. Ibrahim AE, Magdy M, Khalaf EM, et al. Teledermatology in the time of COVID-19. Int J Clin Pract. 2021;75:e15000. doi:10.1111/ijcp.15000
  6. Farr MA, Duvic M, Joshi TP. Teledermatology during COVID-19: an updated review. Am J Clin Dermatol. 2021;22:467-475. doi:10.1007/s40257-021-00601-y
  7. Lipner SR. Optimizing patient care with teledermatology: improving access, efficiency, and satisfaction. Cutis. 2024;114:63-64. doi:10.12788/cutis.1073
References
  1. Patel B, Blalock TW. Defining “access to care” for dermatology at academic medical institutions. J Am Acad Dermatol. 2023;89:627-628. doi:10.1016/j.jaad.2023.03.014
  2. Fritsche M, Maglakelidze N, Zaenglein A, et al. Community outreach initiatives in dermatology: cross-sectional study. Arch Dermatol Res. 2023;315:2693-2695. doi:10.1007/s00403-023-02629-y
  3. Chiu LW. Teaching tips for dermatology residents. Cutis. 2024;113:E17-E19. doi:10.12788/cutis.1046
  4. Duniphin DD. Limited access to dermatology specialty care: barriers and teledermatology. Dermatol Pract Concept. 2023;13:E2023031. doi:10.5826/dpc.1301a31
  5. Ibrahim AE, Magdy M, Khalaf EM, et al. Teledermatology in the time of COVID-19. Int J Clin Pract. 2021;75:e15000. doi:10.1111/ijcp.15000
  6. Farr MA, Duvic M, Joshi TP. Teledermatology during COVID-19: an updated review. Am J Clin Dermatol. 2021;22:467-475. doi:10.1007/s40257-021-00601-y
  7. Lipner SR. Optimizing patient care with teledermatology: improving access, efficiency, and satisfaction. Cutis. 2024;114:63-64. doi:10.12788/cutis.1073
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  • Outreach initiatives can help residents feel more connected to their community and expand access to care.
  • Skin cancer screenings, free clinics, and teledermatology are a few ways residents may get involved in their local communities.
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Study Finds Elevated Skin Cancer Risk Among US Veterans

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US veterans were nearly three times more likely to develop skin cancer than the general population, according to a large cross-sectional analysis of recent national data.

“US veterans are known to have increased risk of cancers and cancer morbidity compared to the general US population,” one of the study authors, Sepideh Ashrafzadeh, MD, a third-year dermatology resident at Massachusetts General Hospital, Boston, told this news organization following the annual meeting of the American Society for Dermatologic Surgery, where the results were presented. “There have been several studies that have shown that US veterans have an increased prevalence of melanoma compared to nonveterans,” she said, noting, however, that no study has investigated the prevalence of nonmelanoma skin cancers (NMSCs), which include basal cell carcinomas and squamous cell carcinomas, compared with the general population.

Dr. Ashrafzadeh
Dr. Sepideh Ashrafzadeh

To address this knowledge gap, the researchers performed a national cross-sectional study of adults aged 18 years or older from the 2019-2023 National Health Interview Surveys to examine the prevalence of melanoma and NMSCs among veterans compared with the general US population. They aggregated and tabulated the data by veteran status, defined as having served at any point in the US armed forces, reserves, or national guard, and by demographic and socioeconomic status variables. Next, they performed multivariate logistic regression for skin cancer risk adjusted for age, sex, race, ethnicity, urbanicity, and disability status.

The study population consisted of 14,301 veterans and 209,936 nonveterans. Compared with nonveterans, veterans were more likely to have been diagnosed with skin cancer at some point in their lives (7% vs 2.4%; P < .001); had a higher mean age of skin cancer diagnosis (61.1 vs 55.8 years; P < .001); were more likely to have been diagnosed with melanoma (2.8% vs 0.9%; P < .001), and were more likely to have been diagnosed with NMSC (4.4% vs 1.6%; P < .001).

The researchers found that older age, White race, non-Hispanic ethnicity, and veteran status were all associated with higher odds of developing NMSCs, even after adjusting for relevant covariates. Specifically, veterans had 1.23 higher odds of developing NMSC than the general population, while two factors were protective for developing NMSCs: Living in a rural setting (adjusted odds ratio [aOR], 0.78) and receiving supplemental security income or disability income (aOR, 0.69).

In another part of the study, the researchers evaluated demographic and socioeconomic variables associated with developing melanoma among veterans. These included the following: Male (aOR, 1.16), older age (50-64 years: aOR, 6.82; 65-74 years: aOR, 12.55; and 75 years or older: aOR, 16.16), White race (aOR, 9.24), and non-Hispanic ethnicity (aOR, 7.15).

“Veterans may have occupational risks such as sun and chemical exposure, as well as behavioral habits for sun protection, that may contribute to their elevated risk of melanoma and NMSCs,” Ashrafzadeh said. “Therefore, US veterans would benefit from targeted and regular skin cancer screenings, sun protective preventative resources such as hats and sunscreen, and access to medical and surgical care for diagnosis and treatment of skin cancers.”

Christine Ko, MD, professor of dermatology and pathology at Yale University, New Haven, Connecticut, who was asked to comment on the findings, said that a key strength of the study is that it drew from a nationally representative sample. “A limitation is that skin cancer was self-reported rather than based on documented medical histories,” Ko said. “The study confirms that skin cancer risk is higher in older individuals (> 75 as compared to < 50) and in individuals of self-reported white race and non-Hispanic ethnicity,” she added.

Neither the researchers nor Ko reported having relevant disclosures.
 

A version of this article first appeared on Medscape.com.

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US veterans were nearly three times more likely to develop skin cancer than the general population, according to a large cross-sectional analysis of recent national data.

“US veterans are known to have increased risk of cancers and cancer morbidity compared to the general US population,” one of the study authors, Sepideh Ashrafzadeh, MD, a third-year dermatology resident at Massachusetts General Hospital, Boston, told this news organization following the annual meeting of the American Society for Dermatologic Surgery, where the results were presented. “There have been several studies that have shown that US veterans have an increased prevalence of melanoma compared to nonveterans,” she said, noting, however, that no study has investigated the prevalence of nonmelanoma skin cancers (NMSCs), which include basal cell carcinomas and squamous cell carcinomas, compared with the general population.

Dr. Ashrafzadeh
Dr. Sepideh Ashrafzadeh

To address this knowledge gap, the researchers performed a national cross-sectional study of adults aged 18 years or older from the 2019-2023 National Health Interview Surveys to examine the prevalence of melanoma and NMSCs among veterans compared with the general US population. They aggregated and tabulated the data by veteran status, defined as having served at any point in the US armed forces, reserves, or national guard, and by demographic and socioeconomic status variables. Next, they performed multivariate logistic regression for skin cancer risk adjusted for age, sex, race, ethnicity, urbanicity, and disability status.

The study population consisted of 14,301 veterans and 209,936 nonveterans. Compared with nonveterans, veterans were more likely to have been diagnosed with skin cancer at some point in their lives (7% vs 2.4%; P < .001); had a higher mean age of skin cancer diagnosis (61.1 vs 55.8 years; P < .001); were more likely to have been diagnosed with melanoma (2.8% vs 0.9%; P < .001), and were more likely to have been diagnosed with NMSC (4.4% vs 1.6%; P < .001).

The researchers found that older age, White race, non-Hispanic ethnicity, and veteran status were all associated with higher odds of developing NMSCs, even after adjusting for relevant covariates. Specifically, veterans had 1.23 higher odds of developing NMSC than the general population, while two factors were protective for developing NMSCs: Living in a rural setting (adjusted odds ratio [aOR], 0.78) and receiving supplemental security income or disability income (aOR, 0.69).

In another part of the study, the researchers evaluated demographic and socioeconomic variables associated with developing melanoma among veterans. These included the following: Male (aOR, 1.16), older age (50-64 years: aOR, 6.82; 65-74 years: aOR, 12.55; and 75 years or older: aOR, 16.16), White race (aOR, 9.24), and non-Hispanic ethnicity (aOR, 7.15).

“Veterans may have occupational risks such as sun and chemical exposure, as well as behavioral habits for sun protection, that may contribute to their elevated risk of melanoma and NMSCs,” Ashrafzadeh said. “Therefore, US veterans would benefit from targeted and regular skin cancer screenings, sun protective preventative resources such as hats and sunscreen, and access to medical and surgical care for diagnosis and treatment of skin cancers.”

Christine Ko, MD, professor of dermatology and pathology at Yale University, New Haven, Connecticut, who was asked to comment on the findings, said that a key strength of the study is that it drew from a nationally representative sample. “A limitation is that skin cancer was self-reported rather than based on documented medical histories,” Ko said. “The study confirms that skin cancer risk is higher in older individuals (> 75 as compared to < 50) and in individuals of self-reported white race and non-Hispanic ethnicity,” she added.

Neither the researchers nor Ko reported having relevant disclosures.
 

A version of this article first appeared on Medscape.com.

US veterans were nearly three times more likely to develop skin cancer than the general population, according to a large cross-sectional analysis of recent national data.

“US veterans are known to have increased risk of cancers and cancer morbidity compared to the general US population,” one of the study authors, Sepideh Ashrafzadeh, MD, a third-year dermatology resident at Massachusetts General Hospital, Boston, told this news organization following the annual meeting of the American Society for Dermatologic Surgery, where the results were presented. “There have been several studies that have shown that US veterans have an increased prevalence of melanoma compared to nonveterans,” she said, noting, however, that no study has investigated the prevalence of nonmelanoma skin cancers (NMSCs), which include basal cell carcinomas and squamous cell carcinomas, compared with the general population.

Dr. Ashrafzadeh
Dr. Sepideh Ashrafzadeh

To address this knowledge gap, the researchers performed a national cross-sectional study of adults aged 18 years or older from the 2019-2023 National Health Interview Surveys to examine the prevalence of melanoma and NMSCs among veterans compared with the general US population. They aggregated and tabulated the data by veteran status, defined as having served at any point in the US armed forces, reserves, or national guard, and by demographic and socioeconomic status variables. Next, they performed multivariate logistic regression for skin cancer risk adjusted for age, sex, race, ethnicity, urbanicity, and disability status.

The study population consisted of 14,301 veterans and 209,936 nonveterans. Compared with nonveterans, veterans were more likely to have been diagnosed with skin cancer at some point in their lives (7% vs 2.4%; P < .001); had a higher mean age of skin cancer diagnosis (61.1 vs 55.8 years; P < .001); were more likely to have been diagnosed with melanoma (2.8% vs 0.9%; P < .001), and were more likely to have been diagnosed with NMSC (4.4% vs 1.6%; P < .001).

The researchers found that older age, White race, non-Hispanic ethnicity, and veteran status were all associated with higher odds of developing NMSCs, even after adjusting for relevant covariates. Specifically, veterans had 1.23 higher odds of developing NMSC than the general population, while two factors were protective for developing NMSCs: Living in a rural setting (adjusted odds ratio [aOR], 0.78) and receiving supplemental security income or disability income (aOR, 0.69).

In another part of the study, the researchers evaluated demographic and socioeconomic variables associated with developing melanoma among veterans. These included the following: Male (aOR, 1.16), older age (50-64 years: aOR, 6.82; 65-74 years: aOR, 12.55; and 75 years or older: aOR, 16.16), White race (aOR, 9.24), and non-Hispanic ethnicity (aOR, 7.15).

“Veterans may have occupational risks such as sun and chemical exposure, as well as behavioral habits for sun protection, that may contribute to their elevated risk of melanoma and NMSCs,” Ashrafzadeh said. “Therefore, US veterans would benefit from targeted and regular skin cancer screenings, sun protective preventative resources such as hats and sunscreen, and access to medical and surgical care for diagnosis and treatment of skin cancers.”

Christine Ko, MD, professor of dermatology and pathology at Yale University, New Haven, Connecticut, who was asked to comment on the findings, said that a key strength of the study is that it drew from a nationally representative sample. “A limitation is that skin cancer was self-reported rather than based on documented medical histories,” Ko said. “The study confirms that skin cancer risk is higher in older individuals (> 75 as compared to < 50) and in individuals of self-reported white race and non-Hispanic ethnicity,” she added.

Neither the researchers nor Ko reported having relevant disclosures.
 

A version of this article first appeared on Medscape.com.

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Cancer’s Other Toll: Long-Term Financial Fallout for Survivors

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Mon, 10/28/2024 - 14:04

— While the physical toll of cancer is well documented, the financial toll can also be severe and lasting.

Overall, patients with cancer tend to face higher rates of debt collection, medical collections, and bankruptcies, as well as lower credit scores, according to two new studies presented at the American College of Surgeons Clinical Congress 2024.

“These are the first studies to provide numerical evidence of financial toxicity among cancer survivors,” Benjamin C. James, MD, with Beth Israel Deaconess Medical Center and Harvard Medical School, both in Boston, Massachusetts, who worked on both studies, said in a statement. “Previous data on this topic largely relies on subjective survey reviews.”

In one study, researchers used the Massachusetts Cancer Registry to identify 99,175 patients diagnosed with cancer between 2010 and 2019 and matched them with 188,875 control individuals without cancer. Researchers then assessed financial toxicity using Experian credit bureau data for participants.

Overall, patients with cancer faced a range of financial challenges that often lasted years following their diagnosis.

Patients were nearly five times more likely to experience bankruptcy and had average credit scores nearly 80 points lower than control individuals without cancer. The drop in credit scores was more pronounced for survivors of bladder, liver, lung, and colorectal cancer (CRC) and persisted for up to 9.5 years.

For certain cancer types, in particular, “we are looking years after a diagnosis, and we see that the credit score goes down and it never comes back up,” James said.

The other study, which used a sample of 7227 patients with CRC from Massachusetts, identified several factors that correlated with lower credit scores.

Compared with patients who only had surgery, peers who underwent radiation only experienced a 62-point drop in their credit score after their diagnosis, while those who had chemotherapy alone had just over a 14-point drop in their credit score. Among patients who had combination treatments, those who underwent both surgery and radiation experienced a nearly 16-point drop in their credit score and those who had surgery and chemoradiation actually experienced a 2.59 bump, compared with those who had surgery alone.

Financial toxicity was worse for patients younger than 62 years, those identifying as Black or Hispanic individuals, unmarried individuals, those with an annual income below $52,000, and those living in deprived areas.

The studies add to findings from the 2015 North American Thyroid Cancer Survivorship Study, which reported that 50% of thyroid cancer survivors encountered financial toxicity because of their diagnosis.

James said the persistent financial strain of cancer care, even in a state like Massachusetts, which mandates universal healthcare, underscores the need for “broader policy changes and reforms, including reconsidering debt collection practices.”

“Financial security should be a priority in cancer care,” he added.

The studies had no specific funding. The authors have disclosed no relevant conflict of interest.

A version of this article first appeared on Medscape.com.

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— While the physical toll of cancer is well documented, the financial toll can also be severe and lasting.

Overall, patients with cancer tend to face higher rates of debt collection, medical collections, and bankruptcies, as well as lower credit scores, according to two new studies presented at the American College of Surgeons Clinical Congress 2024.

“These are the first studies to provide numerical evidence of financial toxicity among cancer survivors,” Benjamin C. James, MD, with Beth Israel Deaconess Medical Center and Harvard Medical School, both in Boston, Massachusetts, who worked on both studies, said in a statement. “Previous data on this topic largely relies on subjective survey reviews.”

In one study, researchers used the Massachusetts Cancer Registry to identify 99,175 patients diagnosed with cancer between 2010 and 2019 and matched them with 188,875 control individuals without cancer. Researchers then assessed financial toxicity using Experian credit bureau data for participants.

Overall, patients with cancer faced a range of financial challenges that often lasted years following their diagnosis.

Patients were nearly five times more likely to experience bankruptcy and had average credit scores nearly 80 points lower than control individuals without cancer. The drop in credit scores was more pronounced for survivors of bladder, liver, lung, and colorectal cancer (CRC) and persisted for up to 9.5 years.

For certain cancer types, in particular, “we are looking years after a diagnosis, and we see that the credit score goes down and it never comes back up,” James said.

The other study, which used a sample of 7227 patients with CRC from Massachusetts, identified several factors that correlated with lower credit scores.

Compared with patients who only had surgery, peers who underwent radiation only experienced a 62-point drop in their credit score after their diagnosis, while those who had chemotherapy alone had just over a 14-point drop in their credit score. Among patients who had combination treatments, those who underwent both surgery and radiation experienced a nearly 16-point drop in their credit score and those who had surgery and chemoradiation actually experienced a 2.59 bump, compared with those who had surgery alone.

Financial toxicity was worse for patients younger than 62 years, those identifying as Black or Hispanic individuals, unmarried individuals, those with an annual income below $52,000, and those living in deprived areas.

The studies add to findings from the 2015 North American Thyroid Cancer Survivorship Study, which reported that 50% of thyroid cancer survivors encountered financial toxicity because of their diagnosis.

James said the persistent financial strain of cancer care, even in a state like Massachusetts, which mandates universal healthcare, underscores the need for “broader policy changes and reforms, including reconsidering debt collection practices.”

“Financial security should be a priority in cancer care,” he added.

The studies had no specific funding. The authors have disclosed no relevant conflict of interest.

A version of this article first appeared on Medscape.com.

— While the physical toll of cancer is well documented, the financial toll can also be severe and lasting.

Overall, patients with cancer tend to face higher rates of debt collection, medical collections, and bankruptcies, as well as lower credit scores, according to two new studies presented at the American College of Surgeons Clinical Congress 2024.

“These are the first studies to provide numerical evidence of financial toxicity among cancer survivors,” Benjamin C. James, MD, with Beth Israel Deaconess Medical Center and Harvard Medical School, both in Boston, Massachusetts, who worked on both studies, said in a statement. “Previous data on this topic largely relies on subjective survey reviews.”

In one study, researchers used the Massachusetts Cancer Registry to identify 99,175 patients diagnosed with cancer between 2010 and 2019 and matched them with 188,875 control individuals without cancer. Researchers then assessed financial toxicity using Experian credit bureau data for participants.

Overall, patients with cancer faced a range of financial challenges that often lasted years following their diagnosis.

Patients were nearly five times more likely to experience bankruptcy and had average credit scores nearly 80 points lower than control individuals without cancer. The drop in credit scores was more pronounced for survivors of bladder, liver, lung, and colorectal cancer (CRC) and persisted for up to 9.5 years.

For certain cancer types, in particular, “we are looking years after a diagnosis, and we see that the credit score goes down and it never comes back up,” James said.

The other study, which used a sample of 7227 patients with CRC from Massachusetts, identified several factors that correlated with lower credit scores.

Compared with patients who only had surgery, peers who underwent radiation only experienced a 62-point drop in their credit score after their diagnosis, while those who had chemotherapy alone had just over a 14-point drop in their credit score. Among patients who had combination treatments, those who underwent both surgery and radiation experienced a nearly 16-point drop in their credit score and those who had surgery and chemoradiation actually experienced a 2.59 bump, compared with those who had surgery alone.

Financial toxicity was worse for patients younger than 62 years, those identifying as Black or Hispanic individuals, unmarried individuals, those with an annual income below $52,000, and those living in deprived areas.

The studies add to findings from the 2015 North American Thyroid Cancer Survivorship Study, which reported that 50% of thyroid cancer survivors encountered financial toxicity because of their diagnosis.

James said the persistent financial strain of cancer care, even in a state like Massachusetts, which mandates universal healthcare, underscores the need for “broader policy changes and reforms, including reconsidering debt collection practices.”

“Financial security should be a priority in cancer care,” he added.

The studies had no specific funding. The authors have disclosed no relevant conflict of interest.

A version of this article first appeared on Medscape.com.

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Cannabis in Cancer: What Oncologists and Patients Should Know

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Wed, 11/06/2024 - 05:20

Many patients use cannabis to manage their cancer-related symptoms. However, research indicates that patients often do so without speaking to their oncologists first, and oncologists may be hesitant to broach the topic with their patients.

Updated guidelines from the American Society of Clinical Oncology (ASCO) on the use of cannabis and cannabinoids in adults with cancer stress that it’s an important conversation to have.

According to the ASCO expert panel, access to and use of cannabis alongside cancer care have outpaced the science on evidence-based indications, and overall high-quality data on the effects of cannabis during cancer care are lacking. While several observational studies support cannabis use to help ease chemotherapy-related nausea and vomiting, the literature remains more divided on other potential benefits, such as alleviating cancer pain and sleep problems, and some evidence points to potential downsides of cannabis use.

Oncologists should “absolutely talk to patients” about cannabis, Brooke Worster, MD, medical director for the Master of Science in Medical Cannabis Science & Business program at Thomas Jefferson University, Philadelphia, told Medscape Medical News.

“Patients are interested, and they are going to find access to information. As a medical professional, it’s our job to help guide them through these spaces in a safe, nonjudgmental way.”

But, Worster noted, oncologists don’t have to be experts on cannabis to begin the conversation with patients.

So, “let yourself off the hook,” Worster urged.

Plus, avoiding the conversation won’t stop patients from using cannabis. In a recent study, Worster and her colleagues found that nearly one third of patients at 12 National Cancer Institute-designated cancer centers had used cannabis since their diagnosis — most often for sleep disturbance, pain, stress, and anxiety. Most (60%) felt somewhat or extremely comfortable talking to their healthcare provider about it, but only 21.5% said they had done so. Even fewer — about 10% — had talked to their treating oncologist.

Because patients may not discuss cannabis use, it’s especially important for oncologists to open up a line of communication, said Worster, also the enterprise director of supportive oncology at the Thomas Jefferson University.
 

Evidence on Cannabis During Cancer Care

A substantial proportion of people with cancer believe cannabis can help manage cancer-related symptoms.

In Worster’s recent survey study, regardless of whether patients had used cannabis, almost 90% of those surveyed reported a perceived benefit. Although 65% also reported perceived risks for cannabis use, including difficulty concentrating, lung damage, and impaired memory, the perceived benefits outweighed the risks.

Despite generally positive perceptions, the overall literature on the benefits of cannabis in patients with cancer paints a less clear picture.

The ASCO guidelines, which were based on 13 systematic reviews and five additional primary studies, reported that cannabis can improve refractory, chemotherapy-induced nausea or vomiting when added to guideline-concordant antiemetic regimens, but that there is no clear evidence of benefit or harm for other supportive care outcomes.

The “certainty of evidence for most outcomes was low or very low,” the ASCO authors wrote.

The ASCO experts explained that, outside the context of a clinical trial, the evidence is not sufficient to recommend cannabis or cannabinoids for managing cancer pain, sleep issues, appetite loss, or anxiety and depression. For these outcomes, some studies indicate a benefit, while others don’t.

Real-world data from a large registry study, for instance, have indicated that medical cannabis is “a safe and effective complementary treatment for pain relief in patients with cancer.” However, a 2020 meta-analysis found that, in studies with a low risk for bias, adding cannabinoids to opioids did not reduce cancer pain in adults with advanced cancer.

There can be downsides to cannabis use, too. In one recent study, some patients reported feeling worse physically and psychologically compared with those who didn’t use cannabis. Another study found that oral cannabis was associated with “bothersome” side effects, including sedation, dizziness, and transient anxiety.

The ASCO guidelines also made it clear that cannabis or cannabinoids should not be used as cancer-directed treatment, outside of a clinical trial.
 

 

 

Talking to Patients About Cannabis

Given the level of evidence and patient interest in cannabis, it is important for oncologists to raise the topic of cannabis use with their patients.

To help inform decision-making and approaches to care, the ASCO guidelines suggest that oncologists can guide care themselves or direct patients to appropriate “unbiased, evidence-based” resources. For those who use cannabis or cannabinoids outside of evidence-based indications or clinician recommendations, it’s important to explore patients’ goals, educate them, and try to minimize harm.

One strategy for broaching the topic, Worster suggested, is to simply ask patients if they have tried or considered trying cannabis to control symptoms like nausea and vomiting, loss of appetite, or cancer pain.

The conversation with patients should then include an overview of the potential benefits and potential risks for cannabis use as well as risk reduction strategies, Worster noted.

But “approach it in an open and nonjudgmental frame of mind,” she said. “Just have a conversation.”

Discussing the formulation and concentration of tetrahydrocannabinol (THC) and cannabidiol (CBD) in products matters as well.

Will the product be inhaled, ingested, or topical? Inhaled cannabis is not ideal but is sometimes what patients have access to, Worster explained. Inhaled formulations tend to have faster onset, which might be preferable for treating chemotherapy-related nausea and vomiting, whereas edible formulations may take a while to start working.

It’s also important to warn patients about taking too much, she said, explaining that inhaling THC at higher doses can increase the risk for cardiovascular effects, anxiety, paranoia, panic, and psychosis.

CBD, on the other hand, is anti-inflammatory, but early data suggest it may blunt immune responses in high doses and should be used cautiously by patients receiving immunotherapy.

Worster noted that as laws change and the science advances, new cannabis products and formulations will emerge, as will artificial intelligence tools for helping to guide patients and clinicians in optimal use of cannabis for cancer care. State websites are a particularly helpful tool for providing state-specific medical education related to cannabis laws and use, as well, she said.

The bottom line, she said, is that talking to patients about the ins and outs of cannabis use “really matters.”

Worster disclosed that she is a medical consultant for EO Care.
 

A version of this article appeared on Medscape.com.

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Many patients use cannabis to manage their cancer-related symptoms. However, research indicates that patients often do so without speaking to their oncologists first, and oncologists may be hesitant to broach the topic with their patients.

Updated guidelines from the American Society of Clinical Oncology (ASCO) on the use of cannabis and cannabinoids in adults with cancer stress that it’s an important conversation to have.

According to the ASCO expert panel, access to and use of cannabis alongside cancer care have outpaced the science on evidence-based indications, and overall high-quality data on the effects of cannabis during cancer care are lacking. While several observational studies support cannabis use to help ease chemotherapy-related nausea and vomiting, the literature remains more divided on other potential benefits, such as alleviating cancer pain and sleep problems, and some evidence points to potential downsides of cannabis use.

Oncologists should “absolutely talk to patients” about cannabis, Brooke Worster, MD, medical director for the Master of Science in Medical Cannabis Science & Business program at Thomas Jefferson University, Philadelphia, told Medscape Medical News.

“Patients are interested, and they are going to find access to information. As a medical professional, it’s our job to help guide them through these spaces in a safe, nonjudgmental way.”

But, Worster noted, oncologists don’t have to be experts on cannabis to begin the conversation with patients.

So, “let yourself off the hook,” Worster urged.

Plus, avoiding the conversation won’t stop patients from using cannabis. In a recent study, Worster and her colleagues found that nearly one third of patients at 12 National Cancer Institute-designated cancer centers had used cannabis since their diagnosis — most often for sleep disturbance, pain, stress, and anxiety. Most (60%) felt somewhat or extremely comfortable talking to their healthcare provider about it, but only 21.5% said they had done so. Even fewer — about 10% — had talked to their treating oncologist.

Because patients may not discuss cannabis use, it’s especially important for oncologists to open up a line of communication, said Worster, also the enterprise director of supportive oncology at the Thomas Jefferson University.
 

Evidence on Cannabis During Cancer Care

A substantial proportion of people with cancer believe cannabis can help manage cancer-related symptoms.

In Worster’s recent survey study, regardless of whether patients had used cannabis, almost 90% of those surveyed reported a perceived benefit. Although 65% also reported perceived risks for cannabis use, including difficulty concentrating, lung damage, and impaired memory, the perceived benefits outweighed the risks.

Despite generally positive perceptions, the overall literature on the benefits of cannabis in patients with cancer paints a less clear picture.

The ASCO guidelines, which were based on 13 systematic reviews and five additional primary studies, reported that cannabis can improve refractory, chemotherapy-induced nausea or vomiting when added to guideline-concordant antiemetic regimens, but that there is no clear evidence of benefit or harm for other supportive care outcomes.

The “certainty of evidence for most outcomes was low or very low,” the ASCO authors wrote.

The ASCO experts explained that, outside the context of a clinical trial, the evidence is not sufficient to recommend cannabis or cannabinoids for managing cancer pain, sleep issues, appetite loss, or anxiety and depression. For these outcomes, some studies indicate a benefit, while others don’t.

Real-world data from a large registry study, for instance, have indicated that medical cannabis is “a safe and effective complementary treatment for pain relief in patients with cancer.” However, a 2020 meta-analysis found that, in studies with a low risk for bias, adding cannabinoids to opioids did not reduce cancer pain in adults with advanced cancer.

There can be downsides to cannabis use, too. In one recent study, some patients reported feeling worse physically and psychologically compared with those who didn’t use cannabis. Another study found that oral cannabis was associated with “bothersome” side effects, including sedation, dizziness, and transient anxiety.

The ASCO guidelines also made it clear that cannabis or cannabinoids should not be used as cancer-directed treatment, outside of a clinical trial.
 

 

 

Talking to Patients About Cannabis

Given the level of evidence and patient interest in cannabis, it is important for oncologists to raise the topic of cannabis use with their patients.

To help inform decision-making and approaches to care, the ASCO guidelines suggest that oncologists can guide care themselves or direct patients to appropriate “unbiased, evidence-based” resources. For those who use cannabis or cannabinoids outside of evidence-based indications or clinician recommendations, it’s important to explore patients’ goals, educate them, and try to minimize harm.

One strategy for broaching the topic, Worster suggested, is to simply ask patients if they have tried or considered trying cannabis to control symptoms like nausea and vomiting, loss of appetite, or cancer pain.

The conversation with patients should then include an overview of the potential benefits and potential risks for cannabis use as well as risk reduction strategies, Worster noted.

But “approach it in an open and nonjudgmental frame of mind,” she said. “Just have a conversation.”

Discussing the formulation and concentration of tetrahydrocannabinol (THC) and cannabidiol (CBD) in products matters as well.

Will the product be inhaled, ingested, or topical? Inhaled cannabis is not ideal but is sometimes what patients have access to, Worster explained. Inhaled formulations tend to have faster onset, which might be preferable for treating chemotherapy-related nausea and vomiting, whereas edible formulations may take a while to start working.

It’s also important to warn patients about taking too much, she said, explaining that inhaling THC at higher doses can increase the risk for cardiovascular effects, anxiety, paranoia, panic, and psychosis.

CBD, on the other hand, is anti-inflammatory, but early data suggest it may blunt immune responses in high doses and should be used cautiously by patients receiving immunotherapy.

Worster noted that as laws change and the science advances, new cannabis products and formulations will emerge, as will artificial intelligence tools for helping to guide patients and clinicians in optimal use of cannabis for cancer care. State websites are a particularly helpful tool for providing state-specific medical education related to cannabis laws and use, as well, she said.

The bottom line, she said, is that talking to patients about the ins and outs of cannabis use “really matters.”

Worster disclosed that she is a medical consultant for EO Care.
 

A version of this article appeared on Medscape.com.

Many patients use cannabis to manage their cancer-related symptoms. However, research indicates that patients often do so without speaking to their oncologists first, and oncologists may be hesitant to broach the topic with their patients.

Updated guidelines from the American Society of Clinical Oncology (ASCO) on the use of cannabis and cannabinoids in adults with cancer stress that it’s an important conversation to have.

According to the ASCO expert panel, access to and use of cannabis alongside cancer care have outpaced the science on evidence-based indications, and overall high-quality data on the effects of cannabis during cancer care are lacking. While several observational studies support cannabis use to help ease chemotherapy-related nausea and vomiting, the literature remains more divided on other potential benefits, such as alleviating cancer pain and sleep problems, and some evidence points to potential downsides of cannabis use.

Oncologists should “absolutely talk to patients” about cannabis, Brooke Worster, MD, medical director for the Master of Science in Medical Cannabis Science & Business program at Thomas Jefferson University, Philadelphia, told Medscape Medical News.

“Patients are interested, and they are going to find access to information. As a medical professional, it’s our job to help guide them through these spaces in a safe, nonjudgmental way.”

But, Worster noted, oncologists don’t have to be experts on cannabis to begin the conversation with patients.

So, “let yourself off the hook,” Worster urged.

Plus, avoiding the conversation won’t stop patients from using cannabis. In a recent study, Worster and her colleagues found that nearly one third of patients at 12 National Cancer Institute-designated cancer centers had used cannabis since their diagnosis — most often for sleep disturbance, pain, stress, and anxiety. Most (60%) felt somewhat or extremely comfortable talking to their healthcare provider about it, but only 21.5% said they had done so. Even fewer — about 10% — had talked to their treating oncologist.

Because patients may not discuss cannabis use, it’s especially important for oncologists to open up a line of communication, said Worster, also the enterprise director of supportive oncology at the Thomas Jefferson University.
 

Evidence on Cannabis During Cancer Care

A substantial proportion of people with cancer believe cannabis can help manage cancer-related symptoms.

In Worster’s recent survey study, regardless of whether patients had used cannabis, almost 90% of those surveyed reported a perceived benefit. Although 65% also reported perceived risks for cannabis use, including difficulty concentrating, lung damage, and impaired memory, the perceived benefits outweighed the risks.

Despite generally positive perceptions, the overall literature on the benefits of cannabis in patients with cancer paints a less clear picture.

The ASCO guidelines, which were based on 13 systematic reviews and five additional primary studies, reported that cannabis can improve refractory, chemotherapy-induced nausea or vomiting when added to guideline-concordant antiemetic regimens, but that there is no clear evidence of benefit or harm for other supportive care outcomes.

The “certainty of evidence for most outcomes was low or very low,” the ASCO authors wrote.

The ASCO experts explained that, outside the context of a clinical trial, the evidence is not sufficient to recommend cannabis or cannabinoids for managing cancer pain, sleep issues, appetite loss, or anxiety and depression. For these outcomes, some studies indicate a benefit, while others don’t.

Real-world data from a large registry study, for instance, have indicated that medical cannabis is “a safe and effective complementary treatment for pain relief in patients with cancer.” However, a 2020 meta-analysis found that, in studies with a low risk for bias, adding cannabinoids to opioids did not reduce cancer pain in adults with advanced cancer.

There can be downsides to cannabis use, too. In one recent study, some patients reported feeling worse physically and psychologically compared with those who didn’t use cannabis. Another study found that oral cannabis was associated with “bothersome” side effects, including sedation, dizziness, and transient anxiety.

The ASCO guidelines also made it clear that cannabis or cannabinoids should not be used as cancer-directed treatment, outside of a clinical trial.
 

 

 

Talking to Patients About Cannabis

Given the level of evidence and patient interest in cannabis, it is important for oncologists to raise the topic of cannabis use with their patients.

To help inform decision-making and approaches to care, the ASCO guidelines suggest that oncologists can guide care themselves or direct patients to appropriate “unbiased, evidence-based” resources. For those who use cannabis or cannabinoids outside of evidence-based indications or clinician recommendations, it’s important to explore patients’ goals, educate them, and try to minimize harm.

One strategy for broaching the topic, Worster suggested, is to simply ask patients if they have tried or considered trying cannabis to control symptoms like nausea and vomiting, loss of appetite, or cancer pain.

The conversation with patients should then include an overview of the potential benefits and potential risks for cannabis use as well as risk reduction strategies, Worster noted.

But “approach it in an open and nonjudgmental frame of mind,” she said. “Just have a conversation.”

Discussing the formulation and concentration of tetrahydrocannabinol (THC) and cannabidiol (CBD) in products matters as well.

Will the product be inhaled, ingested, or topical? Inhaled cannabis is not ideal but is sometimes what patients have access to, Worster explained. Inhaled formulations tend to have faster onset, which might be preferable for treating chemotherapy-related nausea and vomiting, whereas edible formulations may take a while to start working.

It’s also important to warn patients about taking too much, she said, explaining that inhaling THC at higher doses can increase the risk for cardiovascular effects, anxiety, paranoia, panic, and psychosis.

CBD, on the other hand, is anti-inflammatory, but early data suggest it may blunt immune responses in high doses and should be used cautiously by patients receiving immunotherapy.

Worster noted that as laws change and the science advances, new cannabis products and formulations will emerge, as will artificial intelligence tools for helping to guide patients and clinicians in optimal use of cannabis for cancer care. State websites are a particularly helpful tool for providing state-specific medical education related to cannabis laws and use, as well, she said.

The bottom line, she said, is that talking to patients about the ins and outs of cannabis use “really matters.”

Worster disclosed that she is a medical consultant for EO Care.
 

A version of this article appeared on Medscape.com.

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Risk Assessment Tool Can Help Predict Fractures in Cancer

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Wed, 10/23/2024 - 08:22

 

TOPLINE:

The Fracture Risk Assessment Tool (FRAX), with bone mineral density, predicts the risk for major osteoporotic fractures and hip fractures in patients with cancer, but FRAX without bone mineral density slightly overestimates these risks, a new analysis found.

METHODOLOGY:

  • Cancer-specific guidelines recommend using FRAX to assess fracture risk, but its applicability in patients with cancer remains unclear.
  • This retrospective cohort study included 9877 patients with cancer (mean age, 67.1 years) and 45,875 matched control individuals without cancer (mean age, 66.2 years). All participants had dual-energy x-ray absorptiometry (DXA) scans.
  • Researchers collected data on bone mineral density and fractures. The 10-year probabilities of major osteoporotic fractures and hip fractures were calculated using FRAX, and the observed 10-year probabilities of these fractures were compared with FRAX-derived probabilities.
  • Compared with individuals without cancer, patients with cancer had a shorter mean follow-up duration (8.5 vs 7.6 years), a slightly higher mean body mass index, and a higher percentage of parental hip fractures (7.0% vs 8.2%); additionally, patients with cancer were more likely to have secondary causes of osteoporosis (10% vs 38.4%) and less likely to receive osteoporosis medication (9.9% vs 4.2%).

TAKEAWAY:

  • Compared with individuals without cancer, patients with cancer had a significantly higher incidence rate of major fractures (12.9 vs 14.5 per 1000 person-years) and hip fractures (3.5 vs 4.2 per 1000 person-years).
  • FRAX with bone mineral density exhibited excellent calibration for predicting major osteoporotic fractures (slope, 1.03) and hip fractures (0.97) in patients with cancer, regardless of the site of cancer diagnosis. FRAX without bone mineral density, however, underestimated the risk for both major (0.87) and hip fractures (0.72).
  • In patients with cancer, FRAX with bone mineral density findings were associated with incident major osteoporotic fractures (hazard ratio [HR] per SD, 1.84) and hip fractures (HR per SD, 3.61).
  • When models were adjusted for FRAX with bone mineral density, patients with cancer had an increased risk for both major osteoporotic fractures (HR, 1.17) and hip fractures (HR, 1.30). No difference was found in the risk for fracture between patients with and individuals without cancer when the models were adjusted for FRAX without bone mineral density, even when considering osteoporosis medication use.

IN PRACTICE:

“This retrospective cohort study demonstrates that individuals with cancer are at higher risk of fracture than individuals without cancer and that FRAX, particularly with BMD [bone mineral density], may accurately predict fracture risk in this population. These results, along with the known mortality risk of osteoporotic fractures among cancer survivors, further emphasize the clinical importance of closing the current osteoporosis care gap among cancer survivors,” the authors wrote.

SOURCE:

This study, led by Carrie Ye, MD, MPH, University of Alberta, Edmonton, Alberta, Canada, was published online in JAMA Oncology.

LIMITATIONS:

This study cohort included a selected group of cancer survivors who were referred for DXA scans and may not represent the general cancer population. The cohort consisted predominantly of women, limiting the generalizability to men with cancer. Given the heterogeneity of the population, the findings may not be applicable to all cancer subgroups. Information on cancer stage or the presence of bone metastases at the time of fracture risk assessment was lacking, which could have affected the findings.

DISCLOSURES:

This study was funded by the CancerCare Manitoba Foundation. Three authors reported having ties with various sources, including two who received grants from various organizations.
 

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

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TOPLINE:

The Fracture Risk Assessment Tool (FRAX), with bone mineral density, predicts the risk for major osteoporotic fractures and hip fractures in patients with cancer, but FRAX without bone mineral density slightly overestimates these risks, a new analysis found.

METHODOLOGY:

  • Cancer-specific guidelines recommend using FRAX to assess fracture risk, but its applicability in patients with cancer remains unclear.
  • This retrospective cohort study included 9877 patients with cancer (mean age, 67.1 years) and 45,875 matched control individuals without cancer (mean age, 66.2 years). All participants had dual-energy x-ray absorptiometry (DXA) scans.
  • Researchers collected data on bone mineral density and fractures. The 10-year probabilities of major osteoporotic fractures and hip fractures were calculated using FRAX, and the observed 10-year probabilities of these fractures were compared with FRAX-derived probabilities.
  • Compared with individuals without cancer, patients with cancer had a shorter mean follow-up duration (8.5 vs 7.6 years), a slightly higher mean body mass index, and a higher percentage of parental hip fractures (7.0% vs 8.2%); additionally, patients with cancer were more likely to have secondary causes of osteoporosis (10% vs 38.4%) and less likely to receive osteoporosis medication (9.9% vs 4.2%).

TAKEAWAY:

  • Compared with individuals without cancer, patients with cancer had a significantly higher incidence rate of major fractures (12.9 vs 14.5 per 1000 person-years) and hip fractures (3.5 vs 4.2 per 1000 person-years).
  • FRAX with bone mineral density exhibited excellent calibration for predicting major osteoporotic fractures (slope, 1.03) and hip fractures (0.97) in patients with cancer, regardless of the site of cancer diagnosis. FRAX without bone mineral density, however, underestimated the risk for both major (0.87) and hip fractures (0.72).
  • In patients with cancer, FRAX with bone mineral density findings were associated with incident major osteoporotic fractures (hazard ratio [HR] per SD, 1.84) and hip fractures (HR per SD, 3.61).
  • When models were adjusted for FRAX with bone mineral density, patients with cancer had an increased risk for both major osteoporotic fractures (HR, 1.17) and hip fractures (HR, 1.30). No difference was found in the risk for fracture between patients with and individuals without cancer when the models were adjusted for FRAX without bone mineral density, even when considering osteoporosis medication use.

IN PRACTICE:

“This retrospective cohort study demonstrates that individuals with cancer are at higher risk of fracture than individuals without cancer and that FRAX, particularly with BMD [bone mineral density], may accurately predict fracture risk in this population. These results, along with the known mortality risk of osteoporotic fractures among cancer survivors, further emphasize the clinical importance of closing the current osteoporosis care gap among cancer survivors,” the authors wrote.

SOURCE:

This study, led by Carrie Ye, MD, MPH, University of Alberta, Edmonton, Alberta, Canada, was published online in JAMA Oncology.

LIMITATIONS:

This study cohort included a selected group of cancer survivors who were referred for DXA scans and may not represent the general cancer population. The cohort consisted predominantly of women, limiting the generalizability to men with cancer. Given the heterogeneity of the population, the findings may not be applicable to all cancer subgroups. Information on cancer stage or the presence of bone metastases at the time of fracture risk assessment was lacking, which could have affected the findings.

DISCLOSURES:

This study was funded by the CancerCare Manitoba Foundation. Three authors reported having ties with various sources, including two who received grants from various organizations.
 

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

 

TOPLINE:

The Fracture Risk Assessment Tool (FRAX), with bone mineral density, predicts the risk for major osteoporotic fractures and hip fractures in patients with cancer, but FRAX without bone mineral density slightly overestimates these risks, a new analysis found.

METHODOLOGY:

  • Cancer-specific guidelines recommend using FRAX to assess fracture risk, but its applicability in patients with cancer remains unclear.
  • This retrospective cohort study included 9877 patients with cancer (mean age, 67.1 years) and 45,875 matched control individuals without cancer (mean age, 66.2 years). All participants had dual-energy x-ray absorptiometry (DXA) scans.
  • Researchers collected data on bone mineral density and fractures. The 10-year probabilities of major osteoporotic fractures and hip fractures were calculated using FRAX, and the observed 10-year probabilities of these fractures were compared with FRAX-derived probabilities.
  • Compared with individuals without cancer, patients with cancer had a shorter mean follow-up duration (8.5 vs 7.6 years), a slightly higher mean body mass index, and a higher percentage of parental hip fractures (7.0% vs 8.2%); additionally, patients with cancer were more likely to have secondary causes of osteoporosis (10% vs 38.4%) and less likely to receive osteoporosis medication (9.9% vs 4.2%).

TAKEAWAY:

  • Compared with individuals without cancer, patients with cancer had a significantly higher incidence rate of major fractures (12.9 vs 14.5 per 1000 person-years) and hip fractures (3.5 vs 4.2 per 1000 person-years).
  • FRAX with bone mineral density exhibited excellent calibration for predicting major osteoporotic fractures (slope, 1.03) and hip fractures (0.97) in patients with cancer, regardless of the site of cancer diagnosis. FRAX without bone mineral density, however, underestimated the risk for both major (0.87) and hip fractures (0.72).
  • In patients with cancer, FRAX with bone mineral density findings were associated with incident major osteoporotic fractures (hazard ratio [HR] per SD, 1.84) and hip fractures (HR per SD, 3.61).
  • When models were adjusted for FRAX with bone mineral density, patients with cancer had an increased risk for both major osteoporotic fractures (HR, 1.17) and hip fractures (HR, 1.30). No difference was found in the risk for fracture between patients with and individuals without cancer when the models were adjusted for FRAX without bone mineral density, even when considering osteoporosis medication use.

IN PRACTICE:

“This retrospective cohort study demonstrates that individuals with cancer are at higher risk of fracture than individuals without cancer and that FRAX, particularly with BMD [bone mineral density], may accurately predict fracture risk in this population. These results, along with the known mortality risk of osteoporotic fractures among cancer survivors, further emphasize the clinical importance of closing the current osteoporosis care gap among cancer survivors,” the authors wrote.

SOURCE:

This study, led by Carrie Ye, MD, MPH, University of Alberta, Edmonton, Alberta, Canada, was published online in JAMA Oncology.

LIMITATIONS:

This study cohort included a selected group of cancer survivors who were referred for DXA scans and may not represent the general cancer population. The cohort consisted predominantly of women, limiting the generalizability to men with cancer. Given the heterogeneity of the population, the findings may not be applicable to all cancer subgroups. Information on cancer stage or the presence of bone metastases at the time of fracture risk assessment was lacking, which could have affected the findings.

DISCLOSURES:

This study was funded by the CancerCare Manitoba Foundation. Three authors reported having ties with various sources, including two who received grants from various organizations.
 

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

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The New Cancer Stats Might Look Like a Death Sentence. They Aren’t.

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Changed
Wed, 10/23/2024 - 08:13

Cancer is becoming more common in younger generations. Data show that people under 50 are experiencing higher rates of cancer than any generation before them. As a genetic counselor, I hoped these upward trends in early-onset malignancies would slow with a better understanding of risk factors and prevention strategies. Unfortunately, the opposite is happening. Recent findings from the American Cancer Society reveal that the incidence of at least 17 of 34 cancer types is rising among GenX and Millennials. 

These statistics are alarming. I appreciate how easy it is for patients to get lost in the headlines about cancer, which may shape how they approach their healthcare. Each year, millions of Americans miss critical cancer screenings, with many citing fear of a positive test result as a leading reason. Others believe, despite the statistics, that cancer is not something they need to worry about until they are older. And then, of course, getting screened is not as easy as it should be. 

In my work, I meet with people from both younger and older generations who have either faced cancer themselves or witnessed a loved one experience the disease. One of the most common sentiments I hear from these patients is the desire to catch cancer earlier. My answer is always this: The first and most important step everyone can take is understanding their risk. 

For some, knowing they are at increased risk for cancer means starting screenings earlier — sometimes as early as age 25 — or getting screened with a more sensitive test. 

This proactive approach is the right one. Early detection can dramatically increase survival rates, sometimes by up to eightfold, depending on the type of cancer. It also significantly reduces the burden of total and cancer-specific healthcare costs. While screening may carry some potential risks, clinicians can minimize these risks by adhering to evidence-based guidelines, such as those from the American Cancer Society, and ensuring there is appropriate discussion of treatment options when a diagnosis is made.
 

Normalizing Cancer Risk Assessment and Screening 

A detailed cancer risk assessment and education about signs and symptoms should be part of every preventive care visit, regardless of someone’s age. Further, that cancer risk assessment should lead to clear recommendations and support for taking the next steps. 

This is where care advocacy and patient navigation come in. Care advocacy can improve outcomes at every stage of the cancer journey, from increasing screening rates to improving quality of life for survivors. I’ve seen first-hand how care advocates help patients overcome hurdles like long wait times for appointments they need, making both screening and diagnostic care easier to access. 

Now, with the finalization of a new rule from the Centers for Medicare & Medicaid Services, providers can bill for oncology navigation services that occur under their supervision. This formal recognition of care navigation affirms the value of these services not just clinically but financially as well. It will be through methods like care navigation, targeted outreach, and engaging educational resources — built into and covered by health plans — that patients will feel more in control over their health and have tools to help minimize the effects of cancer on the rest of their lives. 

These services benefit healthcare providers as well. Care navigation supports clinical care teams, from primary care providers to oncologists, by ensuring patients are seen before their cancer progresses to a more advanced stage. And even if patients follow screening recommendations for the rest of their lives and never get a positive result, they’ve still gained something invaluable: peace of mind, knowing they’ve taken an active role in their health. 
 

 

 

Fighting Fear With Routine

Treating cancer as a normal part of young people’s healthcare means helping them envision the disease as a condition that can be treated, much like a diagnosis of diabetes or high cholesterol. This mindset shift means quickly following up on a concerning symptom or screening result and reducing the time to start treatment if needed. And with treatment options and success rates for some cancers being better than ever, survivorship support must be built into every treatment plan from the start. Before treatment begins, healthcare providers should make time to talk about sometimes-overlooked key topics, such as reproductive options for people whose fertility may be affected by their cancer treatment, about plans for returning to work during or after treatment, and finding the right mental health support. 

Where we can’t prevent cancer, both primary care providers and oncologists can work together to help patients receive the right diagnosis and treatment as quickly as possible. Knowing insurance coverage has a direct effect on how early cancer is caught, for example, younger people need support in understanding and accessing benefits and resources that may be available through their existing healthcare channels, like some employer-sponsored health plans. Even if getting treated for cancer is inevitable for some, taking immediate action to get screened when it’s appropriate is the best thing we can do to lessen the impact of these rising cancer incidences across the country. At the end of the day, being afraid of cancer doesn’t decrease the chances of getting sick or dying from it. Proactive screening and early detection do. 
 

Brockman, Genetic Counselor, Color Health, Buffalo, New York, has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

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Cancer is becoming more common in younger generations. Data show that people under 50 are experiencing higher rates of cancer than any generation before them. As a genetic counselor, I hoped these upward trends in early-onset malignancies would slow with a better understanding of risk factors and prevention strategies. Unfortunately, the opposite is happening. Recent findings from the American Cancer Society reveal that the incidence of at least 17 of 34 cancer types is rising among GenX and Millennials. 

These statistics are alarming. I appreciate how easy it is for patients to get lost in the headlines about cancer, which may shape how they approach their healthcare. Each year, millions of Americans miss critical cancer screenings, with many citing fear of a positive test result as a leading reason. Others believe, despite the statistics, that cancer is not something they need to worry about until they are older. And then, of course, getting screened is not as easy as it should be. 

In my work, I meet with people from both younger and older generations who have either faced cancer themselves or witnessed a loved one experience the disease. One of the most common sentiments I hear from these patients is the desire to catch cancer earlier. My answer is always this: The first and most important step everyone can take is understanding their risk. 

For some, knowing they are at increased risk for cancer means starting screenings earlier — sometimes as early as age 25 — or getting screened with a more sensitive test. 

This proactive approach is the right one. Early detection can dramatically increase survival rates, sometimes by up to eightfold, depending on the type of cancer. It also significantly reduces the burden of total and cancer-specific healthcare costs. While screening may carry some potential risks, clinicians can minimize these risks by adhering to evidence-based guidelines, such as those from the American Cancer Society, and ensuring there is appropriate discussion of treatment options when a diagnosis is made.
 

Normalizing Cancer Risk Assessment and Screening 

A detailed cancer risk assessment and education about signs and symptoms should be part of every preventive care visit, regardless of someone’s age. Further, that cancer risk assessment should lead to clear recommendations and support for taking the next steps. 

This is where care advocacy and patient navigation come in. Care advocacy can improve outcomes at every stage of the cancer journey, from increasing screening rates to improving quality of life for survivors. I’ve seen first-hand how care advocates help patients overcome hurdles like long wait times for appointments they need, making both screening and diagnostic care easier to access. 

Now, with the finalization of a new rule from the Centers for Medicare & Medicaid Services, providers can bill for oncology navigation services that occur under their supervision. This formal recognition of care navigation affirms the value of these services not just clinically but financially as well. It will be through methods like care navigation, targeted outreach, and engaging educational resources — built into and covered by health plans — that patients will feel more in control over their health and have tools to help minimize the effects of cancer on the rest of their lives. 

These services benefit healthcare providers as well. Care navigation supports clinical care teams, from primary care providers to oncologists, by ensuring patients are seen before their cancer progresses to a more advanced stage. And even if patients follow screening recommendations for the rest of their lives and never get a positive result, they’ve still gained something invaluable: peace of mind, knowing they’ve taken an active role in their health. 
 

 

 

Fighting Fear With Routine

Treating cancer as a normal part of young people’s healthcare means helping them envision the disease as a condition that can be treated, much like a diagnosis of diabetes or high cholesterol. This mindset shift means quickly following up on a concerning symptom or screening result and reducing the time to start treatment if needed. And with treatment options and success rates for some cancers being better than ever, survivorship support must be built into every treatment plan from the start. Before treatment begins, healthcare providers should make time to talk about sometimes-overlooked key topics, such as reproductive options for people whose fertility may be affected by their cancer treatment, about plans for returning to work during or after treatment, and finding the right mental health support. 

Where we can’t prevent cancer, both primary care providers and oncologists can work together to help patients receive the right diagnosis and treatment as quickly as possible. Knowing insurance coverage has a direct effect on how early cancer is caught, for example, younger people need support in understanding and accessing benefits and resources that may be available through their existing healthcare channels, like some employer-sponsored health plans. Even if getting treated for cancer is inevitable for some, taking immediate action to get screened when it’s appropriate is the best thing we can do to lessen the impact of these rising cancer incidences across the country. At the end of the day, being afraid of cancer doesn’t decrease the chances of getting sick or dying from it. Proactive screening and early detection do. 
 

Brockman, Genetic Counselor, Color Health, Buffalo, New York, has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

Cancer is becoming more common in younger generations. Data show that people under 50 are experiencing higher rates of cancer than any generation before them. As a genetic counselor, I hoped these upward trends in early-onset malignancies would slow with a better understanding of risk factors and prevention strategies. Unfortunately, the opposite is happening. Recent findings from the American Cancer Society reveal that the incidence of at least 17 of 34 cancer types is rising among GenX and Millennials. 

These statistics are alarming. I appreciate how easy it is for patients to get lost in the headlines about cancer, which may shape how they approach their healthcare. Each year, millions of Americans miss critical cancer screenings, with many citing fear of a positive test result as a leading reason. Others believe, despite the statistics, that cancer is not something they need to worry about until they are older. And then, of course, getting screened is not as easy as it should be. 

In my work, I meet with people from both younger and older generations who have either faced cancer themselves or witnessed a loved one experience the disease. One of the most common sentiments I hear from these patients is the desire to catch cancer earlier. My answer is always this: The first and most important step everyone can take is understanding their risk. 

For some, knowing they are at increased risk for cancer means starting screenings earlier — sometimes as early as age 25 — or getting screened with a more sensitive test. 

This proactive approach is the right one. Early detection can dramatically increase survival rates, sometimes by up to eightfold, depending on the type of cancer. It also significantly reduces the burden of total and cancer-specific healthcare costs. While screening may carry some potential risks, clinicians can minimize these risks by adhering to evidence-based guidelines, such as those from the American Cancer Society, and ensuring there is appropriate discussion of treatment options when a diagnosis is made.
 

Normalizing Cancer Risk Assessment and Screening 

A detailed cancer risk assessment and education about signs and symptoms should be part of every preventive care visit, regardless of someone’s age. Further, that cancer risk assessment should lead to clear recommendations and support for taking the next steps. 

This is where care advocacy and patient navigation come in. Care advocacy can improve outcomes at every stage of the cancer journey, from increasing screening rates to improving quality of life for survivors. I’ve seen first-hand how care advocates help patients overcome hurdles like long wait times for appointments they need, making both screening and diagnostic care easier to access. 

Now, with the finalization of a new rule from the Centers for Medicare & Medicaid Services, providers can bill for oncology navigation services that occur under their supervision. This formal recognition of care navigation affirms the value of these services not just clinically but financially as well. It will be through methods like care navigation, targeted outreach, and engaging educational resources — built into and covered by health plans — that patients will feel more in control over their health and have tools to help minimize the effects of cancer on the rest of their lives. 

These services benefit healthcare providers as well. Care navigation supports clinical care teams, from primary care providers to oncologists, by ensuring patients are seen before their cancer progresses to a more advanced stage. And even if patients follow screening recommendations for the rest of their lives and never get a positive result, they’ve still gained something invaluable: peace of mind, knowing they’ve taken an active role in their health. 
 

 

 

Fighting Fear With Routine

Treating cancer as a normal part of young people’s healthcare means helping them envision the disease as a condition that can be treated, much like a diagnosis of diabetes or high cholesterol. This mindset shift means quickly following up on a concerning symptom or screening result and reducing the time to start treatment if needed. And with treatment options and success rates for some cancers being better than ever, survivorship support must be built into every treatment plan from the start. Before treatment begins, healthcare providers should make time to talk about sometimes-overlooked key topics, such as reproductive options for people whose fertility may be affected by their cancer treatment, about plans for returning to work during or after treatment, and finding the right mental health support. 

Where we can’t prevent cancer, both primary care providers and oncologists can work together to help patients receive the right diagnosis and treatment as quickly as possible. Knowing insurance coverage has a direct effect on how early cancer is caught, for example, younger people need support in understanding and accessing benefits and resources that may be available through their existing healthcare channels, like some employer-sponsored health plans. Even if getting treated for cancer is inevitable for some, taking immediate action to get screened when it’s appropriate is the best thing we can do to lessen the impact of these rising cancer incidences across the country. At the end of the day, being afraid of cancer doesn’t decrease the chances of getting sick or dying from it. Proactive screening and early detection do. 
 

Brockman, Genetic Counselor, Color Health, Buffalo, New York, has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

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Nailing the Nail Biopsy: Surgical Instruments and Their Function in Nail Biopsy Procedures

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Fri, 10/04/2024 - 12:18

Practice Gap

The term nail biopsy (NB) may refer to a punch, excisional, shave, or longitudinal biopsy of the nail matrix and/or nail bed.1 Nail surgeries, including NBs, are performed relatively infrequently. In a study using data from the Medicare Provider Utilization and Payment Database 2012-2017, only 1.01% of Mohs surgeons and 0.28% of general dermatologists in the United States performed NBs. Thirty-one states had no dermatologist-performed NBs, while 3 states had no nail biopsies performed by any physician, podiatrist, nurse practitioner, or physician assistant, indicating that there is a shortage of dermatology clinicians performing nail surgeries.2

Dermatologists may not be performing NBs due to unfamiliarity with nail unit anatomy and lack of formal NB training during residency.3 In a survey of 240 dermatology residents in the United States, 58% reported performing fewer than 10 nail procedures during residency, with 25% observing only.4 Of those surveyed, 1% had no exposure to nail procedures during 3 years of residency. Furthermore, when asked to assess their competency in nail surgery on a scale of not competent, competent, and very competent, approximately 30% responded that they were not competent.4 Without sufficient education on procedures involving the nail unit, residents may be reluctant to incorporate nail surgery into their clinical practice.

Due to their complexity, NBs require the use of several specialized surgical instruments that are not used for other dermatologic procedures, and residents and attending physicians who have limited nail training may be unfamiliar with these tools. To address this educational gap, we sought to create a guide that details the surgical instruments used for the nail matrix tangential excision (shave) biopsy technique—the most common technique used in our nail specialty clinic. This guide is intended for educational use by dermatologists who wish to incorporate NB as part of their practice.

Tools and Technique

As a major referral center, our New York City–based nail specialty clinic performs a large volume of NBs, many of them performed for clinically concerning longitudinal melanonychias for which a nail matrix shave biopsy most often is performed. We utilize a standardized tray consisting of 12 surgical instruments that are needed to successfully perform a NB from start to finish (Figure). In addition to standard surgical tray items, such as sutures and tissue scissors, additional specialized instruments are necessary for NB procedures, including a nail elevator, an English nail splitter, and skin hook.

Surgical instruments utilized during a nail biopsy procedure: 1, #15 Teflon-coated surgical blade; 2, needle driver; 3, forceps with teeth; 4, scalpel handle; 5, Mayo scissors; 6, nail elevator; 7, skin hook; 8, clamp; 9, suture scissors; 10, tissue scissors; 11, English nail splitter; 12, absorbable suture polyglactin 910 on a P3 needle.

After the initial incisions are made at 45° angles to the proximal nail fold surrounding the longitudinal band, the nail elevator is used to separate the proximal nail plate from the underlying nail bed. The English nail splitter is used to create a transverse split separating the proximal from the distal nail plate, and the proximal nail plate then is retracted using a clamp. The skin hook is used to retract the proximal nail fold to expose the pigment in the nail matrix, which is biopsied using the #15 blade and sent for histopathology. The proximal nail fold and retracted nail plate then are put back in place, and absorbable sutures are used to repair the defect. In certain cases, a 3-mm punch biopsy may be used to sample the nail plate and/or the surrounding soft tissue.

Practice Implications

A guide to surgical tools used during NB procedures, including less commonly encountered tools such as a nail elevator and English nail splitter, helps to close the educational gap of NB procedures among dermatology trainees and attending physicians. In conjunction with practical training with cadavers and models, a guide to surgical tools can be reviewed by trainees before hands-on exposure to nail surgery in a clinical setting. By increasing awareness of the tools needed to complete the procedure from start to finish, dermatologists may feel more prepared and confident in their ability to perform NBs, ultimately allowing for more rapid diagnosis of nail malignancies.

References
  1. Grover C, Bansal S. Nail biopsy: a user’s manual. Indian Dermatol Online J. 2018;9:3-15. doi:10.4103/idoj.IDOJ_268_17
  2. Wang Y, Lipner SR. Retrospective analysis of nail biopsies performed using the Medicare Provider Utilization and Payment Database 2012 to 2017. Dermatol Ther. 2021;34:e14928. doi:10.1111/dth.14928
  3. Hare AQ, Rich P. Clinical and educational gaps in diagnosis of nail disorders. Dermatol Clin. 2016;34:269-273. doi:10.1016/j.det.2016.02.002
  4. Lee EH, Nehal KS, Dusza SW, et al. Procedural dermatology training during dermatology residency: a survey of third-year dermatology residents. J Am Acad Dermatol. 2011;64:475-483.e4835. doi:10.1016/j.jaad.2010.05.044
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Rachel C. Hill is from Weill Cornell Medical College, New York, New York. Apostolos Katsiaunis is from Tufts University School of Medicine, Boston, Massachusetts. Dr. Lipner is from the Department of Dermatology, Weill Cornell Medicine, New York.

Rachel C. Hill and Apostolos Katsiaunis have no relevant financial disclosures to report. Dr. Lipner has served as a consultant for BelleTorus Corporation, Eli Lilly, Moberg Pharmaceuticals, and Ortho-Dermatologics.

Correspondence: Shari R. Lipner MD, PhD, 1305 York Ave, New York, NY 10021 (shl9032@med.cornell.edu).

Cutis. 2024 October;114(4):128, 130. doi:10.12788/cutis.1104

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Rachel C. Hill is from Weill Cornell Medical College, New York, New York. Apostolos Katsiaunis is from Tufts University School of Medicine, Boston, Massachusetts. Dr. Lipner is from the Department of Dermatology, Weill Cornell Medicine, New York.

Rachel C. Hill and Apostolos Katsiaunis have no relevant financial disclosures to report. Dr. Lipner has served as a consultant for BelleTorus Corporation, Eli Lilly, Moberg Pharmaceuticals, and Ortho-Dermatologics.

Correspondence: Shari R. Lipner MD, PhD, 1305 York Ave, New York, NY 10021 (shl9032@med.cornell.edu).

Cutis. 2024 October;114(4):128, 130. doi:10.12788/cutis.1104

Author and Disclosure Information

 

Rachel C. Hill is from Weill Cornell Medical College, New York, New York. Apostolos Katsiaunis is from Tufts University School of Medicine, Boston, Massachusetts. Dr. Lipner is from the Department of Dermatology, Weill Cornell Medicine, New York.

Rachel C. Hill and Apostolos Katsiaunis have no relevant financial disclosures to report. Dr. Lipner has served as a consultant for BelleTorus Corporation, Eli Lilly, Moberg Pharmaceuticals, and Ortho-Dermatologics.

Correspondence: Shari R. Lipner MD, PhD, 1305 York Ave, New York, NY 10021 (shl9032@med.cornell.edu).

Cutis. 2024 October;114(4):128, 130. doi:10.12788/cutis.1104

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Practice Gap

The term nail biopsy (NB) may refer to a punch, excisional, shave, or longitudinal biopsy of the nail matrix and/or nail bed.1 Nail surgeries, including NBs, are performed relatively infrequently. In a study using data from the Medicare Provider Utilization and Payment Database 2012-2017, only 1.01% of Mohs surgeons and 0.28% of general dermatologists in the United States performed NBs. Thirty-one states had no dermatologist-performed NBs, while 3 states had no nail biopsies performed by any physician, podiatrist, nurse practitioner, or physician assistant, indicating that there is a shortage of dermatology clinicians performing nail surgeries.2

Dermatologists may not be performing NBs due to unfamiliarity with nail unit anatomy and lack of formal NB training during residency.3 In a survey of 240 dermatology residents in the United States, 58% reported performing fewer than 10 nail procedures during residency, with 25% observing only.4 Of those surveyed, 1% had no exposure to nail procedures during 3 years of residency. Furthermore, when asked to assess their competency in nail surgery on a scale of not competent, competent, and very competent, approximately 30% responded that they were not competent.4 Without sufficient education on procedures involving the nail unit, residents may be reluctant to incorporate nail surgery into their clinical practice.

Due to their complexity, NBs require the use of several specialized surgical instruments that are not used for other dermatologic procedures, and residents and attending physicians who have limited nail training may be unfamiliar with these tools. To address this educational gap, we sought to create a guide that details the surgical instruments used for the nail matrix tangential excision (shave) biopsy technique—the most common technique used in our nail specialty clinic. This guide is intended for educational use by dermatologists who wish to incorporate NB as part of their practice.

Tools and Technique

As a major referral center, our New York City–based nail specialty clinic performs a large volume of NBs, many of them performed for clinically concerning longitudinal melanonychias for which a nail matrix shave biopsy most often is performed. We utilize a standardized tray consisting of 12 surgical instruments that are needed to successfully perform a NB from start to finish (Figure). In addition to standard surgical tray items, such as sutures and tissue scissors, additional specialized instruments are necessary for NB procedures, including a nail elevator, an English nail splitter, and skin hook.

Surgical instruments utilized during a nail biopsy procedure: 1, #15 Teflon-coated surgical blade; 2, needle driver; 3, forceps with teeth; 4, scalpel handle; 5, Mayo scissors; 6, nail elevator; 7, skin hook; 8, clamp; 9, suture scissors; 10, tissue scissors; 11, English nail splitter; 12, absorbable suture polyglactin 910 on a P3 needle.

After the initial incisions are made at 45° angles to the proximal nail fold surrounding the longitudinal band, the nail elevator is used to separate the proximal nail plate from the underlying nail bed. The English nail splitter is used to create a transverse split separating the proximal from the distal nail plate, and the proximal nail plate then is retracted using a clamp. The skin hook is used to retract the proximal nail fold to expose the pigment in the nail matrix, which is biopsied using the #15 blade and sent for histopathology. The proximal nail fold and retracted nail plate then are put back in place, and absorbable sutures are used to repair the defect. In certain cases, a 3-mm punch biopsy may be used to sample the nail plate and/or the surrounding soft tissue.

Practice Implications

A guide to surgical tools used during NB procedures, including less commonly encountered tools such as a nail elevator and English nail splitter, helps to close the educational gap of NB procedures among dermatology trainees and attending physicians. In conjunction with practical training with cadavers and models, a guide to surgical tools can be reviewed by trainees before hands-on exposure to nail surgery in a clinical setting. By increasing awareness of the tools needed to complete the procedure from start to finish, dermatologists may feel more prepared and confident in their ability to perform NBs, ultimately allowing for more rapid diagnosis of nail malignancies.

Practice Gap

The term nail biopsy (NB) may refer to a punch, excisional, shave, or longitudinal biopsy of the nail matrix and/or nail bed.1 Nail surgeries, including NBs, are performed relatively infrequently. In a study using data from the Medicare Provider Utilization and Payment Database 2012-2017, only 1.01% of Mohs surgeons and 0.28% of general dermatologists in the United States performed NBs. Thirty-one states had no dermatologist-performed NBs, while 3 states had no nail biopsies performed by any physician, podiatrist, nurse practitioner, or physician assistant, indicating that there is a shortage of dermatology clinicians performing nail surgeries.2

Dermatologists may not be performing NBs due to unfamiliarity with nail unit anatomy and lack of formal NB training during residency.3 In a survey of 240 dermatology residents in the United States, 58% reported performing fewer than 10 nail procedures during residency, with 25% observing only.4 Of those surveyed, 1% had no exposure to nail procedures during 3 years of residency. Furthermore, when asked to assess their competency in nail surgery on a scale of not competent, competent, and very competent, approximately 30% responded that they were not competent.4 Without sufficient education on procedures involving the nail unit, residents may be reluctant to incorporate nail surgery into their clinical practice.

Due to their complexity, NBs require the use of several specialized surgical instruments that are not used for other dermatologic procedures, and residents and attending physicians who have limited nail training may be unfamiliar with these tools. To address this educational gap, we sought to create a guide that details the surgical instruments used for the nail matrix tangential excision (shave) biopsy technique—the most common technique used in our nail specialty clinic. This guide is intended for educational use by dermatologists who wish to incorporate NB as part of their practice.

Tools and Technique

As a major referral center, our New York City–based nail specialty clinic performs a large volume of NBs, many of them performed for clinically concerning longitudinal melanonychias for which a nail matrix shave biopsy most often is performed. We utilize a standardized tray consisting of 12 surgical instruments that are needed to successfully perform a NB from start to finish (Figure). In addition to standard surgical tray items, such as sutures and tissue scissors, additional specialized instruments are necessary for NB procedures, including a nail elevator, an English nail splitter, and skin hook.

Surgical instruments utilized during a nail biopsy procedure: 1, #15 Teflon-coated surgical blade; 2, needle driver; 3, forceps with teeth; 4, scalpel handle; 5, Mayo scissors; 6, nail elevator; 7, skin hook; 8, clamp; 9, suture scissors; 10, tissue scissors; 11, English nail splitter; 12, absorbable suture polyglactin 910 on a P3 needle.

After the initial incisions are made at 45° angles to the proximal nail fold surrounding the longitudinal band, the nail elevator is used to separate the proximal nail plate from the underlying nail bed. The English nail splitter is used to create a transverse split separating the proximal from the distal nail plate, and the proximal nail plate then is retracted using a clamp. The skin hook is used to retract the proximal nail fold to expose the pigment in the nail matrix, which is biopsied using the #15 blade and sent for histopathology. The proximal nail fold and retracted nail plate then are put back in place, and absorbable sutures are used to repair the defect. In certain cases, a 3-mm punch biopsy may be used to sample the nail plate and/or the surrounding soft tissue.

Practice Implications

A guide to surgical tools used during NB procedures, including less commonly encountered tools such as a nail elevator and English nail splitter, helps to close the educational gap of NB procedures among dermatology trainees and attending physicians. In conjunction with practical training with cadavers and models, a guide to surgical tools can be reviewed by trainees before hands-on exposure to nail surgery in a clinical setting. By increasing awareness of the tools needed to complete the procedure from start to finish, dermatologists may feel more prepared and confident in their ability to perform NBs, ultimately allowing for more rapid diagnosis of nail malignancies.

References
  1. Grover C, Bansal S. Nail biopsy: a user’s manual. Indian Dermatol Online J. 2018;9:3-15. doi:10.4103/idoj.IDOJ_268_17
  2. Wang Y, Lipner SR. Retrospective analysis of nail biopsies performed using the Medicare Provider Utilization and Payment Database 2012 to 2017. Dermatol Ther. 2021;34:e14928. doi:10.1111/dth.14928
  3. Hare AQ, Rich P. Clinical and educational gaps in diagnosis of nail disorders. Dermatol Clin. 2016;34:269-273. doi:10.1016/j.det.2016.02.002
  4. Lee EH, Nehal KS, Dusza SW, et al. Procedural dermatology training during dermatology residency: a survey of third-year dermatology residents. J Am Acad Dermatol. 2011;64:475-483.e4835. doi:10.1016/j.jaad.2010.05.044
References
  1. Grover C, Bansal S. Nail biopsy: a user’s manual. Indian Dermatol Online J. 2018;9:3-15. doi:10.4103/idoj.IDOJ_268_17
  2. Wang Y, Lipner SR. Retrospective analysis of nail biopsies performed using the Medicare Provider Utilization and Payment Database 2012 to 2017. Dermatol Ther. 2021;34:e14928. doi:10.1111/dth.14928
  3. Hare AQ, Rich P. Clinical and educational gaps in diagnosis of nail disorders. Dermatol Clin. 2016;34:269-273. doi:10.1016/j.det.2016.02.002
  4. Lee EH, Nehal KS, Dusza SW, et al. Procedural dermatology training during dermatology residency: a survey of third-year dermatology residents. J Am Acad Dermatol. 2011;64:475-483.e4835. doi:10.1016/j.jaad.2010.05.044
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