Which conditions are caused by infection? Though it may seem like an amateur concern in the era of advanced microscopy, some culprits evade conventional methods of detection. Large medical databases hold the power to unlock answers. 

A recent study from Sweden and Denmark meticulously traced the lives and medical histories of nearly one million men and women in those countries who had received blood transfusions over nearly five decades. Some of these patients later experienced brain bleeds. The inescapable question: Could a virus found in some donor blood have caused the hemorrhages?

Traditionally, brain bleeds have been thought to strike at random. But the new study, published in JAMA, points toward an infection that causes or, at the very least, is linked to the condition. The researchers used a large databank to make the discovery. 

“As health data becomes more available and easier to analyze, we’ll see all kinds of cases like this,” said Jingcheng Zhao, MD, of the clinical epidemiology division of Sweden’s Karolinska Institutet in Solna and lead author of the study.

Scientists say the field of medical research is on the cusp of a revolution as immense health databases guide discovery and improve clinical care. 

“If you can aggregate data, you have the statistical power to identify associations,” said David R. Crosslin, PhD, professor in the division of biomedical informatics and genomics at Tulane University in New Orleans. “It opens up the world for understanding diseases.”

With access to the large database, Dr. Zhao and his team found that some blood donors later experienced brain bleeds. And it turned out that the recipients of blood from those same donors carried the highest risk of experiencing a brain bleed later in life. Meanwhile, patients whose donors remained bleed-free had the lowest risk.
 

Not so fast in the United States

In Nordic countries, all hospitals, clinics, and pharmacies report data on diagnoses and health care visits to the government, tracking that began with paper and pen in the 1960s. But the United States health care system is too fragmented to replicate such efforts, with several brands of electronic medical records operating across different systems. Data sharing across institutions is minimal. 

Most comparable health data in the United States comes from reimbursement information collected by the Centers for Medicare & Medicaid Services on government-sponsored insurance programs.

“We would need all the health care systems in the country to operate within the same IT system or use the same data model,” said Euan Ashley, MD, PhD, professor of genomics at Stanford (Calif.) University. “It’s an exciting prospect. But I think [the United States] is one of the last countries where it’ll happen.”

States, meanwhile, collect health data on specific areas like sexually transmitted infection cases and rates. Other states have registries, like the Connecticut Tumor Registry, which was established in 1941 and is the oldest population-based cancer registry in the world.

But all of these efforts are ad hoc, and no equivalent exists for heart disease and other conditions.

Health data companies have recently entered the U.S. data industry mainly through partnerships with health systems and insurance companies, using deidentified information from patient charts.

The large databases have yielded important findings that randomized clinical trials simply cannot, according to Dr. Ashley.

For instance, a study found that a heavily-lauded immunotherapy treatment did not provide meaningful outcomes for patients aged 75 years or older, but it did for younger patients.

This sort of analysis might enable clinicians to administer treatments based on how effective they are for patients with particular demographics, according to Cary Gross, MD, professor at Yale University in New Haven, Conn.

“From a bedside standpoint, these large databases can identify who benefits from what,” Dr. Gross said. “Precision medicine is not just about genetic tailoring.” These large datasets also provide insight into genetic and environmental variables that contribute to disease. 

For instance, the UK Biobank has more than 500,000 participants paired with their medical records and scans of their body and brain. Researchers perform cognitive tests on participants and extract DNA from blood samples over their lifetime, allowing examination of interactions between risk factors. 

A similar but much smaller-scale effort underway in the United States, called the All of Us Research Program, has enrolled more than 650,000 people, less than one-third the size of the UK Biobank by relative populations. The goal of the program is to provide insights into prevention and treatment of chronic disease among a diverse set of at least one million participants. The database includes information on sexual orientation, which is a fairly new datapoint collected by researchers in an effort to study health outcomes and inequities among the LGBTQ+ community.

Dr. Crosslin and his colleagues are writing a grant proposal to use the All of Us database to identify genetic risks for preeclampsia. People with certain genetic profiles may be predisposed to the life-threatening condition, and researchers may discover that lifestyle changes could decrease risk, Dr. Crosslin said. 
 

Changes in the United States

The COVID-19 pandemic exposed the lack of centralized data in the United States because a majority of research on the virus has been conducted abroad in countries with national health care systems and these large databases. 

The U.S. gap spurred a group of researchers to create the National Institutes of Health–funded National COVID Cohort Collaborative (N3C), a project that gathers medical records from millions of patients across health systems and provides access to research teams investigating a wide spectrum of topics, such as optimal timing for ventilator use.

But until government or private health systems develop a way to share and regulate health data ethically and efficiently, significant limits will persist on what large-scale databases can do, Dr. Gross said. 

“At the federal level, we need to ensure this health information is made available for public health researchers so we don’t create these private fiefdoms of data,” Dr. Gross said. “Things have to be transparent. I think our country needs to take a step back and think about what we’re doing with our health data and how we can make sure it’s being managed ethically.”

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

Which conditions are caused by infection? Though it may seem like an amateur concern in the era of advanced microscopy, some culprits evade conventional methods of detection. Large medical databases hold the power to unlock answers. 

A recent study from Sweden and Denmark meticulously traced the lives and medical histories of nearly one million men and women in those countries who had received blood transfusions over nearly five decades. Some of these patients later experienced brain bleeds. The inescapable question: Could a virus found in some donor blood have caused the hemorrhages?

Traditionally, brain bleeds have been thought to strike at random. But the new study, published in JAMA, points toward an infection that causes or, at the very least, is linked to the condition. The researchers used a large databank to make the discovery. 

“As health data becomes more available and easier to analyze, we’ll see all kinds of cases like this,” said Jingcheng Zhao, MD, of the clinical epidemiology division of Sweden’s Karolinska Institutet in Solna and lead author of the study.

Scientists say the field of medical research is on the cusp of a revolution as immense health databases guide discovery and improve clinical care. 

“If you can aggregate data, you have the statistical power to identify associations,” said David R. Crosslin, PhD, professor in the division of biomedical informatics and genomics at Tulane University in New Orleans. “It opens up the world for understanding diseases.”

With access to the large database, Dr. Zhao and his team found that some blood donors later experienced brain bleeds. And it turned out that the recipients of blood from those same donors carried the highest risk of experiencing a brain bleed later in life. Meanwhile, patients whose donors remained bleed-free had the lowest risk.
 

Not so fast in the United States

In Nordic countries, all hospitals, clinics, and pharmacies report data on diagnoses and health care visits to the government, tracking that began with paper and pen in the 1960s. But the United States health care system is too fragmented to replicate such efforts, with several brands of electronic medical records operating across different systems. Data sharing across institutions is minimal. 

Most comparable health data in the United States comes from reimbursement information collected by the Centers for Medicare & Medicaid Services on government-sponsored insurance programs.

“We would need all the health care systems in the country to operate within the same IT system or use the same data model,” said Euan Ashley, MD, PhD, professor of genomics at Stanford (Calif.) University. “It’s an exciting prospect. But I think [the United States] is one of the last countries where it’ll happen.”

States, meanwhile, collect health data on specific areas like sexually transmitted infection cases and rates. Other states have registries, like the Connecticut Tumor Registry, which was established in 1941 and is the oldest population-based cancer registry in the world.

But all of these efforts are ad hoc, and no equivalent exists for heart disease and other conditions.

Health data companies have recently entered the U.S. data industry mainly through partnerships with health systems and insurance companies, using deidentified information from patient charts.

The large databases have yielded important findings that randomized clinical trials simply cannot, according to Dr. Ashley.

For instance, a study found that a heavily-lauded immunotherapy treatment did not provide meaningful outcomes for patients aged 75 years or older, but it did for younger patients.

This sort of analysis might enable clinicians to administer treatments based on how effective they are for patients with particular demographics, according to Cary Gross, MD, professor at Yale University in New Haven, Conn.

“From a bedside standpoint, these large databases can identify who benefits from what,” Dr. Gross said. “Precision medicine is not just about genetic tailoring.” These large datasets also provide insight into genetic and environmental variables that contribute to disease. 

For instance, the UK Biobank has more than 500,000 participants paired with their medical records and scans of their body and brain. Researchers perform cognitive tests on participants and extract DNA from blood samples over their lifetime, allowing examination of interactions between risk factors. 

A similar but much smaller-scale effort underway in the United States, called the All of Us Research Program, has enrolled more than 650,000 people, less than one-third the size of the UK Biobank by relative populations. The goal of the program is to provide insights into prevention and treatment of chronic disease among a diverse set of at least one million participants. The database includes information on sexual orientation, which is a fairly new datapoint collected by researchers in an effort to study health outcomes and inequities among the LGBTQ+ community.

Dr. Crosslin and his colleagues are writing a grant proposal to use the All of Us database to identify genetic risks for preeclampsia. People with certain genetic profiles may be predisposed to the life-threatening condition, and researchers may discover that lifestyle changes could decrease risk, Dr. Crosslin said. 
 

Changes in the United States

The COVID-19 pandemic exposed the lack of centralized data in the United States because a majority of research on the virus has been conducted abroad in countries with national health care systems and these large databases. 

The U.S. gap spurred a group of researchers to create the National Institutes of Health–funded National COVID Cohort Collaborative (N3C), a project that gathers medical records from millions of patients across health systems and provides access to research teams investigating a wide spectrum of topics, such as optimal timing for ventilator use.

But until government or private health systems develop a way to share and regulate health data ethically and efficiently, significant limits will persist on what large-scale databases can do, Dr. Gross said. 

“At the federal level, we need to ensure this health information is made available for public health researchers so we don’t create these private fiefdoms of data,” Dr. Gross said. “Things have to be transparent. I think our country needs to take a step back and think about what we’re doing with our health data and how we can make sure it’s being managed ethically.”

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

Which conditions are caused by infection? Though it may seem like an amateur concern in the era of advanced microscopy, some culprits evade conventional methods of detection. Large medical databases hold the power to unlock answers. 

A recent study from Sweden and Denmark meticulously traced the lives and medical histories of nearly one million men and women in those countries who had received blood transfusions over nearly five decades. Some of these patients later experienced brain bleeds. The inescapable question: Could a virus found in some donor blood have caused the hemorrhages?

Traditionally, brain bleeds have been thought to strike at random. But the new study, published in JAMA, points toward an infection that causes or, at the very least, is linked to the condition. The researchers used a large databank to make the discovery. 

“As health data becomes more available and easier to analyze, we’ll see all kinds of cases like this,” said Jingcheng Zhao, MD, of the clinical epidemiology division of Sweden’s Karolinska Institutet in Solna and lead author of the study.

Scientists say the field of medical research is on the cusp of a revolution as immense health databases guide discovery and improve clinical care. 

“If you can aggregate data, you have the statistical power to identify associations,” said David R. Crosslin, PhD, professor in the division of biomedical informatics and genomics at Tulane University in New Orleans. “It opens up the world for understanding diseases.”

With access to the large database, Dr. Zhao and his team found that some blood donors later experienced brain bleeds. And it turned out that the recipients of blood from those same donors carried the highest risk of experiencing a brain bleed later in life. Meanwhile, patients whose donors remained bleed-free had the lowest risk.
 

Not so fast in the United States

In Nordic countries, all hospitals, clinics, and pharmacies report data on diagnoses and health care visits to the government, tracking that began with paper and pen in the 1960s. But the United States health care system is too fragmented to replicate such efforts, with several brands of electronic medical records operating across different systems. Data sharing across institutions is minimal. 

Most comparable health data in the United States comes from reimbursement information collected by the Centers for Medicare & Medicaid Services on government-sponsored insurance programs.

“We would need all the health care systems in the country to operate within the same IT system or use the same data model,” said Euan Ashley, MD, PhD, professor of genomics at Stanford (Calif.) University. “It’s an exciting prospect. But I think [the United States] is one of the last countries where it’ll happen.”

States, meanwhile, collect health data on specific areas like sexually transmitted infection cases and rates. Other states have registries, like the Connecticut Tumor Registry, which was established in 1941 and is the oldest population-based cancer registry in the world.

But all of these efforts are ad hoc, and no equivalent exists for heart disease and other conditions.

Health data companies have recently entered the U.S. data industry mainly through partnerships with health systems and insurance companies, using deidentified information from patient charts.

The large databases have yielded important findings that randomized clinical trials simply cannot, according to Dr. Ashley.

For instance, a study found that a heavily-lauded immunotherapy treatment did not provide meaningful outcomes for patients aged 75 years or older, but it did for younger patients.

This sort of analysis might enable clinicians to administer treatments based on how effective they are for patients with particular demographics, according to Cary Gross, MD, professor at Yale University in New Haven, Conn.

“From a bedside standpoint, these large databases can identify who benefits from what,” Dr. Gross said. “Precision medicine is not just about genetic tailoring.” These large datasets also provide insight into genetic and environmental variables that contribute to disease. 

For instance, the UK Biobank has more than 500,000 participants paired with their medical records and scans of their body and brain. Researchers perform cognitive tests on participants and extract DNA from blood samples over their lifetime, allowing examination of interactions between risk factors. 

A similar but much smaller-scale effort underway in the United States, called the All of Us Research Program, has enrolled more than 650,000 people, less than one-third the size of the UK Biobank by relative populations. The goal of the program is to provide insights into prevention and treatment of chronic disease among a diverse set of at least one million participants. The database includes information on sexual orientation, which is a fairly new datapoint collected by researchers in an effort to study health outcomes and inequities among the LGBTQ+ community.

Dr. Crosslin and his colleagues are writing a grant proposal to use the All of Us database to identify genetic risks for preeclampsia. People with certain genetic profiles may be predisposed to the life-threatening condition, and researchers may discover that lifestyle changes could decrease risk, Dr. Crosslin said. 
 

Changes in the United States

The COVID-19 pandemic exposed the lack of centralized data in the United States because a majority of research on the virus has been conducted abroad in countries with national health care systems and these large databases. 

The U.S. gap spurred a group of researchers to create the National Institutes of Health–funded National COVID Cohort Collaborative (N3C), a project that gathers medical records from millions of patients across health systems and provides access to research teams investigating a wide spectrum of topics, such as optimal timing for ventilator use.

But until government or private health systems develop a way to share and regulate health data ethically and efficiently, significant limits will persist on what large-scale databases can do, Dr. Gross said. 

“At the federal level, we need to ensure this health information is made available for public health researchers so we don’t create these private fiefdoms of data,” Dr. Gross said. “Things have to be transparent. I think our country needs to take a step back and think about what we’re doing with our health data and how we can make sure it’s being managed ethically.”

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

The XXXIII Olympic Summer Games will take place in Paris, France, from July 26 to August 11, 2024, and a variety of outdoor sporting events (eg, surfing, cycling, beach volleyball) will be included. Participation in the Olympic Games is a distinct honor for athletes selected to compete at the highest level in their sports.

Because of their training regimens and lifestyles, Olympic athletes face unique health risks. One such risk appears to be skin cancer, a substantial contributor to the global burden of disease. Taken together, basal cell carcinoma, squamous cell carcinoma, and melanoma account for 6.7 million cases of skin cancer worldwide. Squamous cell carcinoma and malignant skin melanoma were attributed to 1.2 million and 1.7 million life-years lost to disability, respectively.¹

Olympic athletes are at increased risk for sunburn from UVA and UVB radiation, placing them at higher risk for both melanoma and nonmelanoma skin cancers.^2,3 Sweating increases skin photosensitivity, sportswear often offers inadequate sun protection, and sustained high-intensity exercise itself has an immunosuppressive effect. Athletes competing in skiing and snowboarding events also receive radiation reflected off snow and ice at high altitudes.³ In fact, skiing without sunscreen at 11,000-feet above sea level can induce sunburn after only 6 minutes of exposure.⁴ Moreover, sweat, water immersion, and friction can decrease the effectiveness of topical sunscreens.⁵

World-class athletes appear to be exposed to UV radiation to a substantially higher degree than the general public. In an analysis of 144 events at the 2020 XXXII Olympic Summer Games in Tokyo, Japan, the highest exposure assessments were for women’s tennis, men’s golf, and men’s road cycling.⁶ In a 2020 study (N=240), the rates of sunburn were as high as 76.7% among Olympic sailors, elite surfers, and windsurfers, with more than one-quarter of athletes reporting sunburn that lasted longer than 24 hours.⁷ An earlier study reported that professional cyclists were exposed to UV radiation during a single race that exceeded the personal exposure limit by 30 times.⁸

Regrettably, the high level of sun exposure experienced by elite athletes is compounded by their low rate of sunscreen use. In a 2020 survey of 95 Olympians and super sprint triathletes, approximately half rarely used sunscreen, with 1 in 5 athletes never using sunscreen during training.⁹ In another study of 246 elite athletes in surfing, windsurfing, and sailing, nearly half used inadequate sun protection and nearly one-quarter reported never using sunscreen.¹⁰ Surprisingly, as many as 90% of Olympic athletes and super sprint competitors understood the importance of using sunscreen.⁹

What can we learn from these findings?

First, elite athletes remain at high risk for skin cancer because of training regimens, occupational environmental hazards, and other requirements of their sport. Second, despite awareness of the risks of UV radiation exposure, Olympic athletes utilize inadequate photoprotection. Athletes with darker skin are still at risk for skin cancer, photoaging, and pigmentation disorders—indicating a need for photoprotective behaviors in athletes of all skin types.¹¹

Therefore, efforts to promote adequate sunscreen use and understanding of the consequences of UV radiation may need to be prioritized earlier in athletes’ careers and implemented according to evidence-based guidelines. For example, the Stanford University Network for Sun Protection, Outreach, Research and Teamwork (Sunsport) provided information about skin cancer risk and prevention by educating student-athletes, coaches, and trainers in the National Collegiate Athletic Association in the United States. The Sunsport initiative led to a dramatic increase in sunscreen use by student-athletes as well as increased knowledge and discussion of skin cancer risk.¹²

The XXXIII Olympic Summer Games will take place in Paris, France, from July 26 to August 11, 2024, and a variety of outdoor sporting events (eg, surfing, cycling, beach volleyball) will be included. Participation in the Olympic Games is a distinct honor for athletes selected to compete at the highest level in their sports.

Because of their training regimens and lifestyles, Olympic athletes face unique health risks. One such risk appears to be skin cancer, a substantial contributor to the global burden of disease. Taken together, basal cell carcinoma, squamous cell carcinoma, and melanoma account for 6.7 million cases of skin cancer worldwide. Squamous cell carcinoma and malignant skin melanoma were attributed to 1.2 million and 1.7 million life-years lost to disability, respectively.¹

Olympic athletes are at increased risk for sunburn from UVA and UVB radiation, placing them at higher risk for both melanoma and nonmelanoma skin cancers.^2,3 Sweating increases skin photosensitivity, sportswear often offers inadequate sun protection, and sustained high-intensity exercise itself has an immunosuppressive effect. Athletes competing in skiing and snowboarding events also receive radiation reflected off snow and ice at high altitudes.³ In fact, skiing without sunscreen at 11,000-feet above sea level can induce sunburn after only 6 minutes of exposure.⁴ Moreover, sweat, water immersion, and friction can decrease the effectiveness of topical sunscreens.⁵

World-class athletes appear to be exposed to UV radiation to a substantially higher degree than the general public. In an analysis of 144 events at the 2020 XXXII Olympic Summer Games in Tokyo, Japan, the highest exposure assessments were for women’s tennis, men’s golf, and men’s road cycling.⁶ In a 2020 study (N=240), the rates of sunburn were as high as 76.7% among Olympic sailors, elite surfers, and windsurfers, with more than one-quarter of athletes reporting sunburn that lasted longer than 24 hours.⁷ An earlier study reported that professional cyclists were exposed to UV radiation during a single race that exceeded the personal exposure limit by 30 times.⁸

Regrettably, the high level of sun exposure experienced by elite athletes is compounded by their low rate of sunscreen use. In a 2020 survey of 95 Olympians and super sprint triathletes, approximately half rarely used sunscreen, with 1 in 5 athletes never using sunscreen during training.⁹ In another study of 246 elite athletes in surfing, windsurfing, and sailing, nearly half used inadequate sun protection and nearly one-quarter reported never using sunscreen.¹⁰ Surprisingly, as many as 90% of Olympic athletes and super sprint competitors understood the importance of using sunscreen.⁹

What can we learn from these findings?

First, elite athletes remain at high risk for skin cancer because of training regimens, occupational environmental hazards, and other requirements of their sport. Second, despite awareness of the risks of UV radiation exposure, Olympic athletes utilize inadequate photoprotection. Athletes with darker skin are still at risk for skin cancer, photoaging, and pigmentation disorders—indicating a need for photoprotective behaviors in athletes of all skin types.¹¹

Therefore, efforts to promote adequate sunscreen use and understanding of the consequences of UV radiation may need to be prioritized earlier in athletes’ careers and implemented according to evidence-based guidelines. For example, the Stanford University Network for Sun Protection, Outreach, Research and Teamwork (Sunsport) provided information about skin cancer risk and prevention by educating student-athletes, coaches, and trainers in the National Collegiate Athletic Association in the United States. The Sunsport initiative led to a dramatic increase in sunscreen use by student-athletes as well as increased knowledge and discussion of skin cancer risk.¹²

The XXXIII Olympic Summer Games will take place in Paris, France, from July 26 to August 11, 2024, and a variety of outdoor sporting events (eg, surfing, cycling, beach volleyball) will be included. Participation in the Olympic Games is a distinct honor for athletes selected to compete at the highest level in their sports.

Because of their training regimens and lifestyles, Olympic athletes face unique health risks. One such risk appears to be skin cancer, a substantial contributor to the global burden of disease. Taken together, basal cell carcinoma, squamous cell carcinoma, and melanoma account for 6.7 million cases of skin cancer worldwide. Squamous cell carcinoma and malignant skin melanoma were attributed to 1.2 million and 1.7 million life-years lost to disability, respectively.¹

Olympic athletes are at increased risk for sunburn from UVA and UVB radiation, placing them at higher risk for both melanoma and nonmelanoma skin cancers.^2,3 Sweating increases skin photosensitivity, sportswear often offers inadequate sun protection, and sustained high-intensity exercise itself has an immunosuppressive effect. Athletes competing in skiing and snowboarding events also receive radiation reflected off snow and ice at high altitudes.³ In fact, skiing without sunscreen at 11,000-feet above sea level can induce sunburn after only 6 minutes of exposure.⁴ Moreover, sweat, water immersion, and friction can decrease the effectiveness of topical sunscreens.⁵

World-class athletes appear to be exposed to UV radiation to a substantially higher degree than the general public. In an analysis of 144 events at the 2020 XXXII Olympic Summer Games in Tokyo, Japan, the highest exposure assessments were for women’s tennis, men’s golf, and men’s road cycling.⁶ In a 2020 study (N=240), the rates of sunburn were as high as 76.7% among Olympic sailors, elite surfers, and windsurfers, with more than one-quarter of athletes reporting sunburn that lasted longer than 24 hours.⁷ An earlier study reported that professional cyclists were exposed to UV radiation during a single race that exceeded the personal exposure limit by 30 times.⁸

Regrettably, the high level of sun exposure experienced by elite athletes is compounded by their low rate of sunscreen use. In a 2020 survey of 95 Olympians and super sprint triathletes, approximately half rarely used sunscreen, with 1 in 5 athletes never using sunscreen during training.⁹ In another study of 246 elite athletes in surfing, windsurfing, and sailing, nearly half used inadequate sun protection and nearly one-quarter reported never using sunscreen.¹⁰ Surprisingly, as many as 90% of Olympic athletes and super sprint competitors understood the importance of using sunscreen.⁹

What can we learn from these findings?

First, elite athletes remain at high risk for skin cancer because of training regimens, occupational environmental hazards, and other requirements of their sport. Second, despite awareness of the risks of UV radiation exposure, Olympic athletes utilize inadequate photoprotection. Athletes with darker skin are still at risk for skin cancer, photoaging, and pigmentation disorders—indicating a need for photoprotective behaviors in athletes of all skin types.¹¹

Therefore, efforts to promote adequate sunscreen use and understanding of the consequences of UV radiation may need to be prioritized earlier in athletes’ careers and implemented according to evidence-based guidelines. For example, the Stanford University Network for Sun Protection, Outreach, Research and Teamwork (Sunsport) provided information about skin cancer risk and prevention by educating student-athletes, coaches, and trainers in the National Collegiate Athletic Association in the United States. The Sunsport initiative led to a dramatic increase in sunscreen use by student-athletes as well as increased knowledge and discussion of skin cancer risk.¹²

Atopic dermatitis (AD) is a chronic inflammatory disorder that affects individuals worldwide.¹ Although AD previously was commonly described as a skin-limited disease of childhood characterized by eczema in the flexural folds and pruritus, our current understanding supports a more heterogeneous condition.² We review the wide range of cutaneous presentations of AD with a focus on clinical and morphological presentations across diverse skin types—commonly referred to as skin of color (SOC).

Defining SOC in Relation to AD

The terms SOC, race, and ethnicity are used interchangeably, but their true meanings are distinct. Traditionally, race has been defined as a biological concept, grouping cohorts of individuals with a large degree of shared ancestry and genetic similarities,³ and ethnicity as a social construct, grouping individuals with common racial, national, tribal, religious, linguistic, or cultural backgrounds.⁴ In practice, both concepts can broadly be envisioned as mixed social, political, and economic constructs, as no one gene or biologic characteristic distinguishes one racial or ethnic group from another.⁵

The US Census Bureau recognizes 5 racial groupings: White, Black or African American, American Indian or Alaska Native, Asian, and Native Hawaiian or other Pacific Islander.⁶ Hispanic or Latinx origin is considered an ethnicity. It is important to note the limitations of these labels, as they do not completely encapsulate the heterogeneity of the US population. Overgeneralization of racial and ethnic categories may dull or obscure true differences among populations.⁷

From an evolutionary perspective, skin pigmentation represents the product of 2 opposing clines produced by natural selection in response to both need for and protection from UV radiation across lattitudes.⁸ Defining SOC is not quite as simple. Skin of color often is equated with certain racial/ethnic groups, or even binary categories of Black vs non-Black or White vs non-White. Others may use the Fitzpatrick scale to discuss SOC, though this scale was originally created to measure the response of skin to UVA radiation exposure.⁹ The reality is that SOC is a complex term that cannot simply be defined by a certain group of skin tones, races, ethnicities, and/or Fitzpatrick skin types. With this in mind, SOC in the context of this article will often refer to non-White individuals based on the investigators’ terminology, but this definition is not all-encompassing.

Historically in medicine, racial/ethnic differences in outcomes have been equated to differences in biology/genetics without consideration of many external factors.¹⁰ The effects of racism, economic stability, health care access, environment, and education quality rarely are discussed, though they have a major impact on health and may better define associations with race or an SOC population. A discussion of the structural and social determinants of health contributing to disease outcomes should accompany any race-based guidelines to prevent inaccurately pathologizing race or SOC.¹⁰

Within the scope of AD, social determinants of health play an important role in contributing to disease morbidity. Environmental factors, including tobacco smoke, climate, pollutants, water hardness, und urban living, are related to AD prevalence and severity.¹¹ Higher socioeconomic status is associated with increased AD rates,¹² yet lower socioeconomic status is associated with more severe disease.¹³ Barriers to health care access and suboptimal care drive worse AD outcomes.¹⁴ Underrepresentation in clinical trials prevents the generalizability and safety of AD treatments.¹⁵ Disparities in these health determinants associated with AD likely are among the most important drivers of observed differences in disease presentation, severity, burden, and even prevalence—more so than genetics or ancestry alone¹⁶—yet this relationship is poorly understood and often presented as a consequence of race. It is critical to redefine the narrative when considering the heterogeneous presentations of AD in patients with SOC and acknowledge the limitations of current terminology when attempting to capture clinical diversity in AD, including in this review, where published findings often are limited by race-based analysis.

Epidemiology

The prevalence of AD has been increasing over the last few decades, and rates vary by region. In the United States, the prevalence of childhood and adult AD is 13% and 7%, respectively.^17,18 Globally, higher rates of pediatric AD are seen in Africa, Oceania, Southeast Asia (SEA), and Latin America compared to South Asia, Northern Europe, and Eastern Europe.¹⁹ The prevalence of AD varies widely within the same continent and country; for example, throughout Africa, prevalence was found to be anywhere between 4.7% and 23.3%.²⁰

Although AD lesions often are described as pruritic erythematous papules and plaques, other common morphologies in SOC populations include prurigo nodules, lichenoid papules, perifollicular papules, nummular lesions, and psoriasiform lesions (Table). Instead of applying normative terms such as classic vs atypical to AD morphology, we urge clinicians to be familiar with the full spectrum of AD skin signs.

Prurigo Nodules—Prurigo nodules are hyperkeratotic or erosive nodules with severe pruritus, often grouped symmetrically on the extensor surfaces of the arms, legs, and trunk (Figure 1).^14,21 The skin between lesions usually is unaffected but can be dry or lichenified or display postinflammatory pigmentary changes.¹⁴ Prurigo nodules are common. In a study of a cohort of patients with prurigo nodularis (N=108), nearly half (46.3%) were determined to have either an atopic predisposition or underlying AD as a contributing cause of the lesions.²¹

Prurigo nodules as a phenotype of AD may be more common in certain SOC populations. Studies from SEA have reported a higher prevalence of prurigo nodules among patients with AD.²⁸ Although there are limited formal studies assessing the true prevalence of this lesion type in African American AD patients in the United States, clinical evidence supports more frequent appearance of prurigo nodules in non-White patients.²⁹ Contributing factors include suboptimal care for AD in SOC populations and/or barriers to health care access, resulting in more severe disease that increases the risk for this lesion type.¹⁴

Lichenoid Papules—Papular lichenoid lesions often present on the extensor surfaces of the arms and legs in AD (Figure 2).²² In a study of Nigerian patients with AD (N=1019), 54.1% had lichenoid papules.²⁴ A systematic review of AD characteristics by region similarly reported an increased prevalence of this lesion type in African studies.²⁸ Lichenoid variants of AD have been well described in SOC patients in the United States.²³ In contrast to the lesions of lichen planus, the lichenoid papules of AD usually are round, rarely display koebnerization, do not have Wickham striae, and predominantly are located on extensor surfaces.

Perifollicular Papules—Perifollicular accentuation—dermatitis enhanced around hair follicles—is a well-described lesional morphology of AD that is noted in all racial/ethnic groups (Figure 3).²² In fact, perifollicular accentuation is included as one of the Hanifin and Rajka minor criteria for AD.³⁰ Studies performed in Nigeria and India showed perifollicular accentuation in up to 70% of AD patients.^24,31 In a study of adult Thai patients (N=56), follicular lesions were found more frequently in intrinsic AD (29%) compared with extrinsic AD (12%).³²

Nummular and Psoriasiform Lesions—Nummular lesions may be red, oozing, excoriated, studded with pustules and/or present on the extensor extremities (Figure 4). In SOC patients, these lesions often occur in areas where hyperpigmentation is noted.²² Studies in the United States and Mexico demonstrated that 15% to 17% of AD patients displayed nummular lesions.^23,33 Similar to follicular papules, nummular lesions were linked to intrinsic AD in a study of adult Thai patients.³²

Psoriasiform lesions show prominent scaling, lichenification, and clear demarcation.²⁵ It has been reported that the psoriasiform phenotype of AD is more common in Asian patients,²⁵ though this is likely an oversimplification. The participants in these studies were of Japanese and Korean ancestry, which covers a broad geographic region, and the grouping of individuals under a heterogeneous Asian category is unlikely to convey generalizable biologic or clinical information. Unsurprisingly, a systematic review of AD characteristics by region noted considerable phenotypical differences among patients in SEA, East Asia, Iran, and India.²⁸

Disease Severity

Several factors contribute to AD disease severity,³⁴ including objective assessments of inflammation, such as erythema and lichenification (Table), as well as subjective measures of symptoms, such as itch. The severity of AD is exacerbated by the social determinants of health, and a lower socioeconomic status, lower household income, lower parental education level and health, dilapidated housing, and presence of garbage on the street are among factors linked to worse AD disease severity.^13,17 Although non-White individuals with AD often are reported to have more severe disease than their White counterparts,³⁵ these types of health determinants may be the most relevant causes of observed differences.

Erythema—Erythema is a feature of inflammation used in the AD severity assessment. Erythema may appear in shades beyond red, including maroon, violaceous, or brown, in patients with darker pigmented skin, which may contribute to diagnosis of AD at a later disease stage.²⁶ Multiple AD severity scoring tools, such as the SCORing Atopic Dermatitis and Eczema Area and Severity Index, include erythema as a measure, which can lead to underestimation of AD severity in SOC populations. After adjusting for erythema score, one study found that Black children with AD had a risk for severe disease that was 6-times higher than White children.³⁶ Dermatological training must adequately teach physicians to recognize erythema across all skin tones.³⁷

Erythroderma (also known as exfoliative dermatitis) is rapidly spreading erythema on at least 90% of the total body surface area, often sparing the palms and soles.³² Erythroderma is a potentially life-threatening manifestation of severe AD. Although erythroderma may have many underlying causes, AD has been reported to be the cause in 5% to 24% of cases,³⁸ and compared to studies in Europe, the prevalence of erythroderma was higher in East Asian studies of AD.²⁸

Excoriation and Pruritus—Pruritus is a defining characteristic of AD, and the resulting excoriations often are predominant on physical examination, which is a key part of severity scores. Itch is the most prevalent symptom among patients with AD, and a greater itch severity has been linked to decreased health-related quality of life, increased mental health symptoms, impaired sleep, and decreased daily function.^39,40 The burden of itch may be greater in SOC populations. The impact of itch on quality of life among US military veterans was significantly higher in those who identified as non-White (P=.05).⁴¹ In another study of US military veterans, African American individuals reported a significantly higher emotional impact from itch (P<.05).⁴²

Lichenification—Lichenification is thickening of the skin due to chronic rubbing and scratching that causes a leathery elevated appearance with exaggerated skin lines.²⁷ Lichenification is included as a factor in common clinical scoring tools, with greater lichenification indicating greater disease severity. Studies from SEA and Africa suggested a higher prevalence of lichenification in AD patients.²⁸ A greater itch burden and thus increased rubbing/scratching in these populations may contribute to some of these findings.^42,43

Xerosis—Xerosis (or dry skin) is a common finding in AD that results from increased transepidermal water loss due to a dysfunctional epidermal barrier.⁴⁴ In a systematic review of AD characteristics by region, xerosis was among the top 5 most reported AD features globally in all regions except SEA.²⁸ Xerosis may be more stigmatizing in SOC populations because of the greater visibility of scaling and dryness on darker skin tones.¹

Postinflammatory Dyspigmentation—Postinflammatory pigment alteration may be a consequence of AD lesions, resulting in hyperpigmented and hypopigmented macules and patches. Patients with AD with darker skin tones are more likely to develop postinflammatory dyspigmentation.²⁶ A study of AD patients in Nigeria found that 63% displayed postinflammatory dyspigmentation.⁴⁵ Dyschromia, including postinflammatory hyperpigmentation, is one of the most common reasons for SOC patients to seek dermatologic care.⁴⁶ Postinflammatory pigment alteration can cause severe distress in patients, even more so than the cutaneous findings of AD. Although altered skin pigmentation usually returns to normal over weeks to months, skin depigmentation from chronic excoriation may be permanent.²⁶ Appropriately treating hyperpigmentation and hypopigmentation in SOC populations can greatly improve quality of life.⁴⁷

Conclusion

Atopic dermatitis is a cutaneous inflammatory disease that presents with many clinical phenotypes. Dermatologists should be trained to recognize the heterogeneous signs of AD present across the diverse skin types in SOC patients. Future research should move away from race-based analyses and focus on the complex interplay of environmental factors, social determinants of health, and skin pigmentation, as well as how these factors drive variations in AD lesional morphology and inflammation.

Atopic dermatitis (AD) is a chronic inflammatory disorder that affects individuals worldwide.¹ Although AD previously was commonly described as a skin-limited disease of childhood characterized by eczema in the flexural folds and pruritus, our current understanding supports a more heterogeneous condition.² We review the wide range of cutaneous presentations of AD with a focus on clinical and morphological presentations across diverse skin types—commonly referred to as skin of color (SOC).

Defining SOC in Relation to AD

The terms SOC, race, and ethnicity are used interchangeably, but their true meanings are distinct. Traditionally, race has been defined as a biological concept, grouping cohorts of individuals with a large degree of shared ancestry and genetic similarities,³ and ethnicity as a social construct, grouping individuals with common racial, national, tribal, religious, linguistic, or cultural backgrounds.⁴ In practice, both concepts can broadly be envisioned as mixed social, political, and economic constructs, as no one gene or biologic characteristic distinguishes one racial or ethnic group from another.⁵

The US Census Bureau recognizes 5 racial groupings: White, Black or African American, American Indian or Alaska Native, Asian, and Native Hawaiian or other Pacific Islander.⁶ Hispanic or Latinx origin is considered an ethnicity. It is important to note the limitations of these labels, as they do not completely encapsulate the heterogeneity of the US population. Overgeneralization of racial and ethnic categories may dull or obscure true differences among populations.⁷

From an evolutionary perspective, skin pigmentation represents the product of 2 opposing clines produced by natural selection in response to both need for and protection from UV radiation across lattitudes.⁸ Defining SOC is not quite as simple. Skin of color often is equated with certain racial/ethnic groups, or even binary categories of Black vs non-Black or White vs non-White. Others may use the Fitzpatrick scale to discuss SOC, though this scale was originally created to measure the response of skin to UVA radiation exposure.⁹ The reality is that SOC is a complex term that cannot simply be defined by a certain group of skin tones, races, ethnicities, and/or Fitzpatrick skin types. With this in mind, SOC in the context of this article will often refer to non-White individuals based on the investigators’ terminology, but this definition is not all-encompassing.

Historically in medicine, racial/ethnic differences in outcomes have been equated to differences in biology/genetics without consideration of many external factors.¹⁰ The effects of racism, economic stability, health care access, environment, and education quality rarely are discussed, though they have a major impact on health and may better define associations with race or an SOC population. A discussion of the structural and social determinants of health contributing to disease outcomes should accompany any race-based guidelines to prevent inaccurately pathologizing race or SOC.¹⁰

Within the scope of AD, social determinants of health play an important role in contributing to disease morbidity. Environmental factors, including tobacco smoke, climate, pollutants, water hardness, und urban living, are related to AD prevalence and severity.¹¹ Higher socioeconomic status is associated with increased AD rates,¹² yet lower socioeconomic status is associated with more severe disease.¹³ Barriers to health care access and suboptimal care drive worse AD outcomes.¹⁴ Underrepresentation in clinical trials prevents the generalizability and safety of AD treatments.¹⁵ Disparities in these health determinants associated with AD likely are among the most important drivers of observed differences in disease presentation, severity, burden, and even prevalence—more so than genetics or ancestry alone¹⁶—yet this relationship is poorly understood and often presented as a consequence of race. It is critical to redefine the narrative when considering the heterogeneous presentations of AD in patients with SOC and acknowledge the limitations of current terminology when attempting to capture clinical diversity in AD, including in this review, where published findings often are limited by race-based analysis.

Epidemiology

The prevalence of AD has been increasing over the last few decades, and rates vary by region. In the United States, the prevalence of childhood and adult AD is 13% and 7%, respectively.^17,18 Globally, higher rates of pediatric AD are seen in Africa, Oceania, Southeast Asia (SEA), and Latin America compared to South Asia, Northern Europe, and Eastern Europe.¹⁹ The prevalence of AD varies widely within the same continent and country; for example, throughout Africa, prevalence was found to be anywhere between 4.7% and 23.3%.²⁰

Although AD lesions often are described as pruritic erythematous papules and plaques, other common morphologies in SOC populations include prurigo nodules, lichenoid papules, perifollicular papules, nummular lesions, and psoriasiform lesions (Table). Instead of applying normative terms such as classic vs atypical to AD morphology, we urge clinicians to be familiar with the full spectrum of AD skin signs.

Prurigo Nodules—Prurigo nodules are hyperkeratotic or erosive nodules with severe pruritus, often grouped symmetrically on the extensor surfaces of the arms, legs, and trunk (Figure 1).^14,21 The skin between lesions usually is unaffected but can be dry or lichenified or display postinflammatory pigmentary changes.¹⁴ Prurigo nodules are common. In a study of a cohort of patients with prurigo nodularis (N=108), nearly half (46.3%) were determined to have either an atopic predisposition or underlying AD as a contributing cause of the lesions.²¹

Prurigo nodules as a phenotype of AD may be more common in certain SOC populations. Studies from SEA have reported a higher prevalence of prurigo nodules among patients with AD.²⁸ Although there are limited formal studies assessing the true prevalence of this lesion type in African American AD patients in the United States, clinical evidence supports more frequent appearance of prurigo nodules in non-White patients.²⁹ Contributing factors include suboptimal care for AD in SOC populations and/or barriers to health care access, resulting in more severe disease that increases the risk for this lesion type.¹⁴

Lichenoid Papules—Papular lichenoid lesions often present on the extensor surfaces of the arms and legs in AD (Figure 2).²² In a study of Nigerian patients with AD (N=1019), 54.1% had lichenoid papules.²⁴ A systematic review of AD characteristics by region similarly reported an increased prevalence of this lesion type in African studies.²⁸ Lichenoid variants of AD have been well described in SOC patients in the United States.²³ In contrast to the lesions of lichen planus, the lichenoid papules of AD usually are round, rarely display koebnerization, do not have Wickham striae, and predominantly are located on extensor surfaces.

Perifollicular Papules—Perifollicular accentuation—dermatitis enhanced around hair follicles—is a well-described lesional morphology of AD that is noted in all racial/ethnic groups (Figure 3).²² In fact, perifollicular accentuation is included as one of the Hanifin and Rajka minor criteria for AD.³⁰ Studies performed in Nigeria and India showed perifollicular accentuation in up to 70% of AD patients.^24,31 In a study of adult Thai patients (N=56), follicular lesions were found more frequently in intrinsic AD (29%) compared with extrinsic AD (12%).³²

Nummular and Psoriasiform Lesions—Nummular lesions may be red, oozing, excoriated, studded with pustules and/or present on the extensor extremities (Figure 4). In SOC patients, these lesions often occur in areas where hyperpigmentation is noted.²² Studies in the United States and Mexico demonstrated that 15% to 17% of AD patients displayed nummular lesions.^23,33 Similar to follicular papules, nummular lesions were linked to intrinsic AD in a study of adult Thai patients.³²

Psoriasiform lesions show prominent scaling, lichenification, and clear demarcation.²⁵ It has been reported that the psoriasiform phenotype of AD is more common in Asian patients,²⁵ though this is likely an oversimplification. The participants in these studies were of Japanese and Korean ancestry, which covers a broad geographic region, and the grouping of individuals under a heterogeneous Asian category is unlikely to convey generalizable biologic or clinical information. Unsurprisingly, a systematic review of AD characteristics by region noted considerable phenotypical differences among patients in SEA, East Asia, Iran, and India.²⁸

Disease Severity

Several factors contribute to AD disease severity,³⁴ including objective assessments of inflammation, such as erythema and lichenification (Table), as well as subjective measures of symptoms, such as itch. The severity of AD is exacerbated by the social determinants of health, and a lower socioeconomic status, lower household income, lower parental education level and health, dilapidated housing, and presence of garbage on the street are among factors linked to worse AD disease severity.^13,17 Although non-White individuals with AD often are reported to have more severe disease than their White counterparts,³⁵ these types of health determinants may be the most relevant causes of observed differences.

Erythema—Erythema is a feature of inflammation used in the AD severity assessment. Erythema may appear in shades beyond red, including maroon, violaceous, or brown, in patients with darker pigmented skin, which may contribute to diagnosis of AD at a later disease stage.²⁶ Multiple AD severity scoring tools, such as the SCORing Atopic Dermatitis and Eczema Area and Severity Index, include erythema as a measure, which can lead to underestimation of AD severity in SOC populations. After adjusting for erythema score, one study found that Black children with AD had a risk for severe disease that was 6-times higher than White children.³⁶ Dermatological training must adequately teach physicians to recognize erythema across all skin tones.³⁷

Erythroderma (also known as exfoliative dermatitis) is rapidly spreading erythema on at least 90% of the total body surface area, often sparing the palms and soles.³² Erythroderma is a potentially life-threatening manifestation of severe AD. Although erythroderma may have many underlying causes, AD has been reported to be the cause in 5% to 24% of cases,³⁸ and compared to studies in Europe, the prevalence of erythroderma was higher in East Asian studies of AD.²⁸

Excoriation and Pruritus—Pruritus is a defining characteristic of AD, and the resulting excoriations often are predominant on physical examination, which is a key part of severity scores. Itch is the most prevalent symptom among patients with AD, and a greater itch severity has been linked to decreased health-related quality of life, increased mental health symptoms, impaired sleep, and decreased daily function.^39,40 The burden of itch may be greater in SOC populations. The impact of itch on quality of life among US military veterans was significantly higher in those who identified as non-White (P=.05).⁴¹ In another study of US military veterans, African American individuals reported a significantly higher emotional impact from itch (P<.05).⁴²

Lichenification—Lichenification is thickening of the skin due to chronic rubbing and scratching that causes a leathery elevated appearance with exaggerated skin lines.²⁷ Lichenification is included as a factor in common clinical scoring tools, with greater lichenification indicating greater disease severity. Studies from SEA and Africa suggested a higher prevalence of lichenification in AD patients.²⁸ A greater itch burden and thus increased rubbing/scratching in these populations may contribute to some of these findings.^42,43

Xerosis—Xerosis (or dry skin) is a common finding in AD that results from increased transepidermal water loss due to a dysfunctional epidermal barrier.⁴⁴ In a systematic review of AD characteristics by region, xerosis was among the top 5 most reported AD features globally in all regions except SEA.²⁸ Xerosis may be more stigmatizing in SOC populations because of the greater visibility of scaling and dryness on darker skin tones.¹

Postinflammatory Dyspigmentation—Postinflammatory pigment alteration may be a consequence of AD lesions, resulting in hyperpigmented and hypopigmented macules and patches. Patients with AD with darker skin tones are more likely to develop postinflammatory dyspigmentation.²⁶ A study of AD patients in Nigeria found that 63% displayed postinflammatory dyspigmentation.⁴⁵ Dyschromia, including postinflammatory hyperpigmentation, is one of the most common reasons for SOC patients to seek dermatologic care.⁴⁶ Postinflammatory pigment alteration can cause severe distress in patients, even more so than the cutaneous findings of AD. Although altered skin pigmentation usually returns to normal over weeks to months, skin depigmentation from chronic excoriation may be permanent.²⁶ Appropriately treating hyperpigmentation and hypopigmentation in SOC populations can greatly improve quality of life.⁴⁷

Conclusion

Atopic dermatitis is a cutaneous inflammatory disease that presents with many clinical phenotypes. Dermatologists should be trained to recognize the heterogeneous signs of AD present across the diverse skin types in SOC patients. Future research should move away from race-based analyses and focus on the complex interplay of environmental factors, social determinants of health, and skin pigmentation, as well as how these factors drive variations in AD lesional morphology and inflammation.

Atopic dermatitis (AD) is a chronic inflammatory disorder that affects individuals worldwide.¹ Although AD previously was commonly described as a skin-limited disease of childhood characterized by eczema in the flexural folds and pruritus, our current understanding supports a more heterogeneous condition.² We review the wide range of cutaneous presentations of AD with a focus on clinical and morphological presentations across diverse skin types—commonly referred to as skin of color (SOC).

Defining SOC in Relation to AD

The terms SOC, race, and ethnicity are used interchangeably, but their true meanings are distinct. Traditionally, race has been defined as a biological concept, grouping cohorts of individuals with a large degree of shared ancestry and genetic similarities,³ and ethnicity as a social construct, grouping individuals with common racial, national, tribal, religious, linguistic, or cultural backgrounds.⁴ In practice, both concepts can broadly be envisioned as mixed social, political, and economic constructs, as no one gene or biologic characteristic distinguishes one racial or ethnic group from another.⁵

The US Census Bureau recognizes 5 racial groupings: White, Black or African American, American Indian or Alaska Native, Asian, and Native Hawaiian or other Pacific Islander.⁶ Hispanic or Latinx origin is considered an ethnicity. It is important to note the limitations of these labels, as they do not completely encapsulate the heterogeneity of the US population. Overgeneralization of racial and ethnic categories may dull or obscure true differences among populations.⁷

From an evolutionary perspective, skin pigmentation represents the product of 2 opposing clines produced by natural selection in response to both need for and protection from UV radiation across lattitudes.⁸ Defining SOC is not quite as simple. Skin of color often is equated with certain racial/ethnic groups, or even binary categories of Black vs non-Black or White vs non-White. Others may use the Fitzpatrick scale to discuss SOC, though this scale was originally created to measure the response of skin to UVA radiation exposure.⁹ The reality is that SOC is a complex term that cannot simply be defined by a certain group of skin tones, races, ethnicities, and/or Fitzpatrick skin types. With this in mind, SOC in the context of this article will often refer to non-White individuals based on the investigators’ terminology, but this definition is not all-encompassing.

Historically in medicine, racial/ethnic differences in outcomes have been equated to differences in biology/genetics without consideration of many external factors.¹⁰ The effects of racism, economic stability, health care access, environment, and education quality rarely are discussed, though they have a major impact on health and may better define associations with race or an SOC population. A discussion of the structural and social determinants of health contributing to disease outcomes should accompany any race-based guidelines to prevent inaccurately pathologizing race or SOC.¹⁰

Within the scope of AD, social determinants of health play an important role in contributing to disease morbidity. Environmental factors, including tobacco smoke, climate, pollutants, water hardness, und urban living, are related to AD prevalence and severity.¹¹ Higher socioeconomic status is associated with increased AD rates,¹² yet lower socioeconomic status is associated with more severe disease.¹³ Barriers to health care access and suboptimal care drive worse AD outcomes.¹⁴ Underrepresentation in clinical trials prevents the generalizability and safety of AD treatments.¹⁵ Disparities in these health determinants associated with AD likely are among the most important drivers of observed differences in disease presentation, severity, burden, and even prevalence—more so than genetics or ancestry alone¹⁶—yet this relationship is poorly understood and often presented as a consequence of race. It is critical to redefine the narrative when considering the heterogeneous presentations of AD in patients with SOC and acknowledge the limitations of current terminology when attempting to capture clinical diversity in AD, including in this review, where published findings often are limited by race-based analysis.

Epidemiology

The prevalence of AD has been increasing over the last few decades, and rates vary by region. In the United States, the prevalence of childhood and adult AD is 13% and 7%, respectively.^17,18 Globally, higher rates of pediatric AD are seen in Africa, Oceania, Southeast Asia (SEA), and Latin America compared to South Asia, Northern Europe, and Eastern Europe.¹⁹ The prevalence of AD varies widely within the same continent and country; for example, throughout Africa, prevalence was found to be anywhere between 4.7% and 23.3%.²⁰

Although AD lesions often are described as pruritic erythematous papules and plaques, other common morphologies in SOC populations include prurigo nodules, lichenoid papules, perifollicular papules, nummular lesions, and psoriasiform lesions (Table). Instead of applying normative terms such as classic vs atypical to AD morphology, we urge clinicians to be familiar with the full spectrum of AD skin signs.

Prurigo Nodules—Prurigo nodules are hyperkeratotic or erosive nodules with severe pruritus, often grouped symmetrically on the extensor surfaces of the arms, legs, and trunk (Figure 1).^14,21 The skin between lesions usually is unaffected but can be dry or lichenified or display postinflammatory pigmentary changes.¹⁴ Prurigo nodules are common. In a study of a cohort of patients with prurigo nodularis (N=108), nearly half (46.3%) were determined to have either an atopic predisposition or underlying AD as a contributing cause of the lesions.²¹

Prurigo nodules as a phenotype of AD may be more common in certain SOC populations. Studies from SEA have reported a higher prevalence of prurigo nodules among patients with AD.²⁸ Although there are limited formal studies assessing the true prevalence of this lesion type in African American AD patients in the United States, clinical evidence supports more frequent appearance of prurigo nodules in non-White patients.²⁹ Contributing factors include suboptimal care for AD in SOC populations and/or barriers to health care access, resulting in more severe disease that increases the risk for this lesion type.¹⁴

Lichenoid Papules—Papular lichenoid lesions often present on the extensor surfaces of the arms and legs in AD (Figure 2).²² In a study of Nigerian patients with AD (N=1019), 54.1% had lichenoid papules.²⁴ A systematic review of AD characteristics by region similarly reported an increased prevalence of this lesion type in African studies.²⁸ Lichenoid variants of AD have been well described in SOC patients in the United States.²³ In contrast to the lesions of lichen planus, the lichenoid papules of AD usually are round, rarely display koebnerization, do not have Wickham striae, and predominantly are located on extensor surfaces.

Perifollicular Papules—Perifollicular accentuation—dermatitis enhanced around hair follicles—is a well-described lesional morphology of AD that is noted in all racial/ethnic groups (Figure 3).²² In fact, perifollicular accentuation is included as one of the Hanifin and Rajka minor criteria for AD.³⁰ Studies performed in Nigeria and India showed perifollicular accentuation in up to 70% of AD patients.^24,31 In a study of adult Thai patients (N=56), follicular lesions were found more frequently in intrinsic AD (29%) compared with extrinsic AD (12%).³²

Nummular and Psoriasiform Lesions—Nummular lesions may be red, oozing, excoriated, studded with pustules and/or present on the extensor extremities (Figure 4). In SOC patients, these lesions often occur in areas where hyperpigmentation is noted.²² Studies in the United States and Mexico demonstrated that 15% to 17% of AD patients displayed nummular lesions.^23,33 Similar to follicular papules, nummular lesions were linked to intrinsic AD in a study of adult Thai patients.³²

Psoriasiform lesions show prominent scaling, lichenification, and clear demarcation.²⁵ It has been reported that the psoriasiform phenotype of AD is more common in Asian patients,²⁵ though this is likely an oversimplification. The participants in these studies were of Japanese and Korean ancestry, which covers a broad geographic region, and the grouping of individuals under a heterogeneous Asian category is unlikely to convey generalizable biologic or clinical information. Unsurprisingly, a systematic review of AD characteristics by region noted considerable phenotypical differences among patients in SEA, East Asia, Iran, and India.²⁸

Disease Severity

Several factors contribute to AD disease severity,³⁴ including objective assessments of inflammation, such as erythema and lichenification (Table), as well as subjective measures of symptoms, such as itch. The severity of AD is exacerbated by the social determinants of health, and a lower socioeconomic status, lower household income, lower parental education level and health, dilapidated housing, and presence of garbage on the street are among factors linked to worse AD disease severity.^13,17 Although non-White individuals with AD often are reported to have more severe disease than their White counterparts,³⁵ these types of health determinants may be the most relevant causes of observed differences.

Erythema—Erythema is a feature of inflammation used in the AD severity assessment. Erythema may appear in shades beyond red, including maroon, violaceous, or brown, in patients with darker pigmented skin, which may contribute to diagnosis of AD at a later disease stage.²⁶ Multiple AD severity scoring tools, such as the SCORing Atopic Dermatitis and Eczema Area and Severity Index, include erythema as a measure, which can lead to underestimation of AD severity in SOC populations. After adjusting for erythema score, one study found that Black children with AD had a risk for severe disease that was 6-times higher than White children.³⁶ Dermatological training must adequately teach physicians to recognize erythema across all skin tones.³⁷

Erythroderma (also known as exfoliative dermatitis) is rapidly spreading erythema on at least 90% of the total body surface area, often sparing the palms and soles.³² Erythroderma is a potentially life-threatening manifestation of severe AD. Although erythroderma may have many underlying causes, AD has been reported to be the cause in 5% to 24% of cases,³⁸ and compared to studies in Europe, the prevalence of erythroderma was higher in East Asian studies of AD.²⁸

Excoriation and Pruritus—Pruritus is a defining characteristic of AD, and the resulting excoriations often are predominant on physical examination, which is a key part of severity scores. Itch is the most prevalent symptom among patients with AD, and a greater itch severity has been linked to decreased health-related quality of life, increased mental health symptoms, impaired sleep, and decreased daily function.^39,40 The burden of itch may be greater in SOC populations. The impact of itch on quality of life among US military veterans was significantly higher in those who identified as non-White (P=.05).⁴¹ In another study of US military veterans, African American individuals reported a significantly higher emotional impact from itch (P<.05).⁴²

Lichenification—Lichenification is thickening of the skin due to chronic rubbing and scratching that causes a leathery elevated appearance with exaggerated skin lines.²⁷ Lichenification is included as a factor in common clinical scoring tools, with greater lichenification indicating greater disease severity. Studies from SEA and Africa suggested a higher prevalence of lichenification in AD patients.²⁸ A greater itch burden and thus increased rubbing/scratching in these populations may contribute to some of these findings.^42,43

Xerosis—Xerosis (or dry skin) is a common finding in AD that results from increased transepidermal water loss due to a dysfunctional epidermal barrier.⁴⁴ In a systematic review of AD characteristics by region, xerosis was among the top 5 most reported AD features globally in all regions except SEA.²⁸ Xerosis may be more stigmatizing in SOC populations because of the greater visibility of scaling and dryness on darker skin tones.¹

Postinflammatory Dyspigmentation—Postinflammatory pigment alteration may be a consequence of AD lesions, resulting in hyperpigmented and hypopigmented macules and patches. Patients with AD with darker skin tones are more likely to develop postinflammatory dyspigmentation.²⁶ A study of AD patients in Nigeria found that 63% displayed postinflammatory dyspigmentation.⁴⁵ Dyschromia, including postinflammatory hyperpigmentation, is one of the most common reasons for SOC patients to seek dermatologic care.⁴⁶ Postinflammatory pigment alteration can cause severe distress in patients, even more so than the cutaneous findings of AD. Although altered skin pigmentation usually returns to normal over weeks to months, skin depigmentation from chronic excoriation may be permanent.²⁶ Appropriately treating hyperpigmentation and hypopigmentation in SOC populations can greatly improve quality of life.⁴⁷

Conclusion

Atopic dermatitis is a cutaneous inflammatory disease that presents with many clinical phenotypes. Dermatologists should be trained to recognize the heterogeneous signs of AD present across the diverse skin types in SOC patients. Future research should move away from race-based analyses and focus on the complex interplay of environmental factors, social determinants of health, and skin pigmentation, as well as how these factors drive variations in AD lesional morphology and inflammation.

A Canadian systematic review of 28 observational studies has identified 10 strong predictors of fatal and nonfatal prescription opioid overdose.

Published in CMAJ, the analysis found the risk of fatal and nonfatal opioid overdose was notably tied to such factors as high-dose and fentanyl prescriptions, multiple opioid prescribers or pharmacies, and several mental health issues. High-certainty evidence from 14 studies involving more than a million patients showed a linear dose-response relationship with opioid overdose.

“Our findings suggest that awareness of, and attention to, several patient and prescription characteristics may help reduce the risk of opioid overdose among people living with chronic pain,” wrote a research team led by Li Wang, PhD, a researcher at the Michael G. DeGroote Institute for Pain Research and Care and the department of anesthesia at McMaster University, Hamilton, Ont.
 

Predictors of fatal and nonfatal overdose

Reporting on studies of 103 possible predictors in a pooled cohort of almost 24 million patients, the review found moderate- to high-certainty evidence for large relative associations with the following 10 criteria:

• A history of overdose (odds ratio, 5.85; 95% confidence interval, 3.78-9.04).
• A higher opioid dosage (OR, 2.57; 95% CI, 2.08-3.18 per 90-mg increment).
• Three or more prescribers (OR, 4.68; 95% CI, 3.57-6.12).
• Four or more dispensing pharmacies (OR, 4.92; 95% CI, 4.35-5.57).
• Prescription for fentanyl (OR, 2.80; 95% CI, 2.30-3.41).
• Current substance use disorder (OR, 2.62; 95% CI, 2.09-3.27).
• Any mental health diagnosis (OR, 2.12; 95% CI, 1.73-2.61).
• Depression (OR, 2.22; 95% CI, 1.57-314).
• Bipolar disorder (OR, 2.07; 95% CI, 1.77-2.41).
• Pancreatitis (OR, 2.00; 95% CI,1.52-2.64).

Absolute risks in patients with the predictor ranged from 2 to 6 per 1,000 for fatal overdose and 4 to 12 per 1,000 for nonfatal overdose.

The authors noted that chronic pain affects 20% of the world’s population worldwide, and a 2021 meta-analysis of 60 observational studies revealed that opioids are prescribed for 27% of adults living with chronic pain, with a higher prevalence of prescribing in North America than in Europe.
 

International review

A total of 28 observational studies comprising 23,963,716 patients (52% female) with mean age of 52 years were enrolled. All used administrative databases. Twenty-four studies were conducted in the United States, three in Canada, and one in the United Kingdom. Twenty-one studies included only patients with noncancer chronic pain, while seven included patients with either cancer-related or noncancer chronic pain. Twenty-two studies accepted patients with previous or current substance use disorder and three excluded patients with comorbid substance use disorder. Twenty-three studies included patients with comorbid mental illness and five exclusively recruited veterans.

The median sample size was 43,885. As a limitation, 25 studies (89%) were at high risk of bias for at least one criterion, the authors acknowledged. Moderate-certainty evidence showed the pooled prevalence of fatal opioid overdose after prescription for chronic pain was 1.3 per 1,000 (95% CI, 0.6-2.3 per 1,000) for fatal overdose and 3.2 per 1,000 (95% CI, 2.0-4.7 per 1,000) for nonfatal overdose.

“Awareness of these predictors may facilitate shared decision-making regarding prescribing opioids for chronic pain and may inform harm-reduction strategies,” Dr. Wang and associates wrote.

This study was supported by a grant from Health Canada’s Substance Use and Addictions Program. Coauthor Dr. Corey Hayes was supported by Veterans Affairs Health Services Research and Development and the National Institute on Drug Abuse Clinical Trials Network. Dr. Jason Busse is supported by the Canadian Institutes of Health Research. Dr. David Juurlink has received travel support for presentations from the CIHR, Stanford University, and Texas Tech University Health Sciences Center.

A Canadian systematic review of 28 observational studies has identified 10 strong predictors of fatal and nonfatal prescription opioid overdose.

Published in CMAJ, the analysis found the risk of fatal and nonfatal opioid overdose was notably tied to such factors as high-dose and fentanyl prescriptions, multiple opioid prescribers or pharmacies, and several mental health issues. High-certainty evidence from 14 studies involving more than a million patients showed a linear dose-response relationship with opioid overdose.

“Our findings suggest that awareness of, and attention to, several patient and prescription characteristics may help reduce the risk of opioid overdose among people living with chronic pain,” wrote a research team led by Li Wang, PhD, a researcher at the Michael G. DeGroote Institute for Pain Research and Care and the department of anesthesia at McMaster University, Hamilton, Ont.
 

Predictors of fatal and nonfatal overdose

Reporting on studies of 103 possible predictors in a pooled cohort of almost 24 million patients, the review found moderate- to high-certainty evidence for large relative associations with the following 10 criteria:

• A history of overdose (odds ratio, 5.85; 95% confidence interval, 3.78-9.04).
• A higher opioid dosage (OR, 2.57; 95% CI, 2.08-3.18 per 90-mg increment).
• Three or more prescribers (OR, 4.68; 95% CI, 3.57-6.12).
• Four or more dispensing pharmacies (OR, 4.92; 95% CI, 4.35-5.57).
• Prescription for fentanyl (OR, 2.80; 95% CI, 2.30-3.41).
• Current substance use disorder (OR, 2.62; 95% CI, 2.09-3.27).
• Any mental health diagnosis (OR, 2.12; 95% CI, 1.73-2.61).
• Depression (OR, 2.22; 95% CI, 1.57-314).
• Bipolar disorder (OR, 2.07; 95% CI, 1.77-2.41).
• Pancreatitis (OR, 2.00; 95% CI,1.52-2.64).

Absolute risks in patients with the predictor ranged from 2 to 6 per 1,000 for fatal overdose and 4 to 12 per 1,000 for nonfatal overdose.

The authors noted that chronic pain affects 20% of the world’s population worldwide, and a 2021 meta-analysis of 60 observational studies revealed that opioids are prescribed for 27% of adults living with chronic pain, with a higher prevalence of prescribing in North America than in Europe.
 

International review

A total of 28 observational studies comprising 23,963,716 patients (52% female) with mean age of 52 years were enrolled. All used administrative databases. Twenty-four studies were conducted in the United States, three in Canada, and one in the United Kingdom. Twenty-one studies included only patients with noncancer chronic pain, while seven included patients with either cancer-related or noncancer chronic pain. Twenty-two studies accepted patients with previous or current substance use disorder and three excluded patients with comorbid substance use disorder. Twenty-three studies included patients with comorbid mental illness and five exclusively recruited veterans.

The median sample size was 43,885. As a limitation, 25 studies (89%) were at high risk of bias for at least one criterion, the authors acknowledged. Moderate-certainty evidence showed the pooled prevalence of fatal opioid overdose after prescription for chronic pain was 1.3 per 1,000 (95% CI, 0.6-2.3 per 1,000) for fatal overdose and 3.2 per 1,000 (95% CI, 2.0-4.7 per 1,000) for nonfatal overdose.

“Awareness of these predictors may facilitate shared decision-making regarding prescribing opioids for chronic pain and may inform harm-reduction strategies,” Dr. Wang and associates wrote.

This study was supported by a grant from Health Canada’s Substance Use and Addictions Program. Coauthor Dr. Corey Hayes was supported by Veterans Affairs Health Services Research and Development and the National Institute on Drug Abuse Clinical Trials Network. Dr. Jason Busse is supported by the Canadian Institutes of Health Research. Dr. David Juurlink has received travel support for presentations from the CIHR, Stanford University, and Texas Tech University Health Sciences Center.

A Canadian systematic review of 28 observational studies has identified 10 strong predictors of fatal and nonfatal prescription opioid overdose.

Published in CMAJ, the analysis found the risk of fatal and nonfatal opioid overdose was notably tied to such factors as high-dose and fentanyl prescriptions, multiple opioid prescribers or pharmacies, and several mental health issues. High-certainty evidence from 14 studies involving more than a million patients showed a linear dose-response relationship with opioid overdose.

“Our findings suggest that awareness of, and attention to, several patient and prescription characteristics may help reduce the risk of opioid overdose among people living with chronic pain,” wrote a research team led by Li Wang, PhD, a researcher at the Michael G. DeGroote Institute for Pain Research and Care and the department of anesthesia at McMaster University, Hamilton, Ont.
 

Predictors of fatal and nonfatal overdose

Reporting on studies of 103 possible predictors in a pooled cohort of almost 24 million patients, the review found moderate- to high-certainty evidence for large relative associations with the following 10 criteria:

• A history of overdose (odds ratio, 5.85; 95% confidence interval, 3.78-9.04).
• A higher opioid dosage (OR, 2.57; 95% CI, 2.08-3.18 per 90-mg increment).
• Three or more prescribers (OR, 4.68; 95% CI, 3.57-6.12).
• Four or more dispensing pharmacies (OR, 4.92; 95% CI, 4.35-5.57).
• Prescription for fentanyl (OR, 2.80; 95% CI, 2.30-3.41).
• Current substance use disorder (OR, 2.62; 95% CI, 2.09-3.27).
• Any mental health diagnosis (OR, 2.12; 95% CI, 1.73-2.61).
• Depression (OR, 2.22; 95% CI, 1.57-314).
• Bipolar disorder (OR, 2.07; 95% CI, 1.77-2.41).
• Pancreatitis (OR, 2.00; 95% CI,1.52-2.64).

Absolute risks in patients with the predictor ranged from 2 to 6 per 1,000 for fatal overdose and 4 to 12 per 1,000 for nonfatal overdose.

The authors noted that chronic pain affects 20% of the world’s population worldwide, and a 2021 meta-analysis of 60 observational studies revealed that opioids are prescribed for 27% of adults living with chronic pain, with a higher prevalence of prescribing in North America than in Europe.
 

International review

A total of 28 observational studies comprising 23,963,716 patients (52% female) with mean age of 52 years were enrolled. All used administrative databases. Twenty-four studies were conducted in the United States, three in Canada, and one in the United Kingdom. Twenty-one studies included only patients with noncancer chronic pain, while seven included patients with either cancer-related or noncancer chronic pain. Twenty-two studies accepted patients with previous or current substance use disorder and three excluded patients with comorbid substance use disorder. Twenty-three studies included patients with comorbid mental illness and five exclusively recruited veterans.

The median sample size was 43,885. As a limitation, 25 studies (89%) were at high risk of bias for at least one criterion, the authors acknowledged. Moderate-certainty evidence showed the pooled prevalence of fatal opioid overdose after prescription for chronic pain was 1.3 per 1,000 (95% CI, 0.6-2.3 per 1,000) for fatal overdose and 3.2 per 1,000 (95% CI, 2.0-4.7 per 1,000) for nonfatal overdose.

“Awareness of these predictors may facilitate shared decision-making regarding prescribing opioids for chronic pain and may inform harm-reduction strategies,” Dr. Wang and associates wrote.

This study was supported by a grant from Health Canada’s Substance Use and Addictions Program. Coauthor Dr. Corey Hayes was supported by Veterans Affairs Health Services Research and Development and the National Institute on Drug Abuse Clinical Trials Network. Dr. Jason Busse is supported by the Canadian Institutes of Health Research. Dr. David Juurlink has received travel support for presentations from the CIHR, Stanford University, and Texas Tech University Health Sciences Center.

NEW YORK – In the last 25 years, major advances in treating multiple myeloma (MM) have doubled survival rates, yet the still incurable disease often requires lifelong maintenance therapy. Since CAR T-cell therapy has emerged as a viable strategy to prolong survival and deepen response in relapsed or refractory (RR) patients, the question arises: Should CAR T replace autologous stem cell transplant (ASCT) in earlier lines of treatment?

courtesy MSKCC

“In an otherwise healthy treatment-naive patient with multiple myeloma, to ensure the best chances of overall survival, I would always recommend standard of care consolidation therapy of chemotherapy + ASCT,” said Sergio Giralt, MD, of New York’s Memorial Sloan Kettering Cancer Center, debating the merits of ASCT versus CAR T as consolidation therapy at the Lymphoma, Leukemia & Myeloma (LLM) Congress 2023 in New York.

Final results from the phase II GRIFFIN trial highlight the benchmarks that CAR T-cell therapy would need to reach to achieve equivalence with ASCT. At a 4-year follow-up, newly diagnosed MM patients who received daratumumab, lenalidomide, bortezomib, and dexamethasone (D-RVd) followed by ASCT + D-RVd consolidation, and daratumumab maintenance, had a progression-free survival (PFS) rate of 87.3%, 92.7% overall survival (OS) rate, and 50% achieved minimal residual disease negativity.

Dr. Adriana Rossi, MD, assistant professor of medicine, Icahn School of Medicine at Mount Sinai, New York, cited a convergence of evidence suggesting that CAR T could achieve impressive results as a consolidation therapy in fit patients with MM, including: CARTITUDE 1 and CARTITUDE 4, which studied CAR T in RR MM patients. However, due to the fact that no head-to-head study of CAR T vs. ASCT as consolidation therapy in otherwise healthy MM patients exists, “There is not enough long-term data to support the equivalence CAR T with ASCT,” Dr. Giralt concluded.

Dr. Rossi further advocated for considering CAR T as a consolidation treatment because of the risks of secondary malignancies associated with ACST maintenance regimens.

Dr. Giralt rebutted this argument by citing data about averse events (AE) in studies of CAR-T therapies in RR MM patients like KarMMa-2, in which grade 3-4 neutropenia, anemia, and thrombocytopenia occurred in 94.6%, 45.9%, and 37.8% of patients respectively. Furthermore, 2 of 37 patients in KarMMA died (1 pneumonia, 1 pseudomonal sepsis), while rates of death from AEs related to ASCT occur in less than 1% of patients, according to Dr. Giralt.

Beyond a dearth of evidence thus far about the long term PFS, OS, and safety profile superiority of CAR-T therapies, compared with ASCT in treatment-naive MM patients, Dr. Giralt also noted the facts that CAR T-cell therapies are expensive and require manufacturing infrastructure also demonstrate that they cannot be easily adopted everywhere, even as a third-line therapy.

“In many places like Morocco, where I practice, we do not have access to CAR-T therapies,” said Sadia Zafad, MD, of the Clinique Al Madina Hematology and Oncology Center in Casablanca, Morocco. Dr. Zafad attended the debate.

A lack of access to CAR T is also a problem in the United States, where wait times for the therapy can stretch up to 6 months, getting insurance approval is challenging, and many patients simply don’t live near a center where CAR T-cell therapy is available. Citing all these factors, Dr. Giralt concluded: “Even if CAR T can be shown to have the same results as transplant, it is much more resource-intensive than transplant, and insurers are going to start saying there’s no necessary benefit. We have yet to use value as a primary end point, but as cancer care gets more and more expensive, that’s going to come up more, for CAR T and other novel therapies.”

Dr. Giralt reported relationships with Actinuum, Amgen, BMS, Celgene, Crisper, J&J, Jazz, Kite, Miltenyi, Novartis, Sanofi, and Takeda. Dr. Rossi disclosed ties with Adaptive, BMS, Celgene, JNJ, Sanofi & Genzyme. Dr. Zafad reported no disclosures.

NEW YORK – In the last 25 years, major advances in treating multiple myeloma (MM) have doubled survival rates, yet the still incurable disease often requires lifelong maintenance therapy. Since CAR T-cell therapy has emerged as a viable strategy to prolong survival and deepen response in relapsed or refractory (RR) patients, the question arises: Should CAR T replace autologous stem cell transplant (ASCT) in earlier lines of treatment?

courtesy MSKCC

“In an otherwise healthy treatment-naive patient with multiple myeloma, to ensure the best chances of overall survival, I would always recommend standard of care consolidation therapy of chemotherapy + ASCT,” said Sergio Giralt, MD, of New York’s Memorial Sloan Kettering Cancer Center, debating the merits of ASCT versus CAR T as consolidation therapy at the Lymphoma, Leukemia & Myeloma (LLM) Congress 2023 in New York.

Final results from the phase II GRIFFIN trial highlight the benchmarks that CAR T-cell therapy would need to reach to achieve equivalence with ASCT. At a 4-year follow-up, newly diagnosed MM patients who received daratumumab, lenalidomide, bortezomib, and dexamethasone (D-RVd) followed by ASCT + D-RVd consolidation, and daratumumab maintenance, had a progression-free survival (PFS) rate of 87.3%, 92.7% overall survival (OS) rate, and 50% achieved minimal residual disease negativity.

Dr. Adriana Rossi, MD, assistant professor of medicine, Icahn School of Medicine at Mount Sinai, New York, cited a convergence of evidence suggesting that CAR T could achieve impressive results as a consolidation therapy in fit patients with MM, including: CARTITUDE 1 and CARTITUDE 4, which studied CAR T in RR MM patients. However, due to the fact that no head-to-head study of CAR T vs. ASCT as consolidation therapy in otherwise healthy MM patients exists, “There is not enough long-term data to support the equivalence CAR T with ASCT,” Dr. Giralt concluded.

Dr. Rossi further advocated for considering CAR T as a consolidation treatment because of the risks of secondary malignancies associated with ACST maintenance regimens.

Dr. Giralt rebutted this argument by citing data about averse events (AE) in studies of CAR-T therapies in RR MM patients like KarMMa-2, in which grade 3-4 neutropenia, anemia, and thrombocytopenia occurred in 94.6%, 45.9%, and 37.8% of patients respectively. Furthermore, 2 of 37 patients in KarMMA died (1 pneumonia, 1 pseudomonal sepsis), while rates of death from AEs related to ASCT occur in less than 1% of patients, according to Dr. Giralt.

Beyond a dearth of evidence thus far about the long term PFS, OS, and safety profile superiority of CAR-T therapies, compared with ASCT in treatment-naive MM patients, Dr. Giralt also noted the facts that CAR T-cell therapies are expensive and require manufacturing infrastructure also demonstrate that they cannot be easily adopted everywhere, even as a third-line therapy.

“In many places like Morocco, where I practice, we do not have access to CAR-T therapies,” said Sadia Zafad, MD, of the Clinique Al Madina Hematology and Oncology Center in Casablanca, Morocco. Dr. Zafad attended the debate.

A lack of access to CAR T is also a problem in the United States, where wait times for the therapy can stretch up to 6 months, getting insurance approval is challenging, and many patients simply don’t live near a center where CAR T-cell therapy is available. Citing all these factors, Dr. Giralt concluded: “Even if CAR T can be shown to have the same results as transplant, it is much more resource-intensive than transplant, and insurers are going to start saying there’s no necessary benefit. We have yet to use value as a primary end point, but as cancer care gets more and more expensive, that’s going to come up more, for CAR T and other novel therapies.”

Dr. Giralt reported relationships with Actinuum, Amgen, BMS, Celgene, Crisper, J&J, Jazz, Kite, Miltenyi, Novartis, Sanofi, and Takeda. Dr. Rossi disclosed ties with Adaptive, BMS, Celgene, JNJ, Sanofi & Genzyme. Dr. Zafad reported no disclosures.

NEW YORK – In the last 25 years, major advances in treating multiple myeloma (MM) have doubled survival rates, yet the still incurable disease often requires lifelong maintenance therapy. Since CAR T-cell therapy has emerged as a viable strategy to prolong survival and deepen response in relapsed or refractory (RR) patients, the question arises: Should CAR T replace autologous stem cell transplant (ASCT) in earlier lines of treatment?

courtesy MSKCC

“In an otherwise healthy treatment-naive patient with multiple myeloma, to ensure the best chances of overall survival, I would always recommend standard of care consolidation therapy of chemotherapy + ASCT,” said Sergio Giralt, MD, of New York’s Memorial Sloan Kettering Cancer Center, debating the merits of ASCT versus CAR T as consolidation therapy at the Lymphoma, Leukemia & Myeloma (LLM) Congress 2023 in New York.

Final results from the phase II GRIFFIN trial highlight the benchmarks that CAR T-cell therapy would need to reach to achieve equivalence with ASCT. At a 4-year follow-up, newly diagnosed MM patients who received daratumumab, lenalidomide, bortezomib, and dexamethasone (D-RVd) followed by ASCT + D-RVd consolidation, and daratumumab maintenance, had a progression-free survival (PFS) rate of 87.3%, 92.7% overall survival (OS) rate, and 50% achieved minimal residual disease negativity.

Dr. Adriana Rossi, MD, assistant professor of medicine, Icahn School of Medicine at Mount Sinai, New York, cited a convergence of evidence suggesting that CAR T could achieve impressive results as a consolidation therapy in fit patients with MM, including: CARTITUDE 1 and CARTITUDE 4, which studied CAR T in RR MM patients. However, due to the fact that no head-to-head study of CAR T vs. ASCT as consolidation therapy in otherwise healthy MM patients exists, “There is not enough long-term data to support the equivalence CAR T with ASCT,” Dr. Giralt concluded.

Dr. Rossi further advocated for considering CAR T as a consolidation treatment because of the risks of secondary malignancies associated with ACST maintenance regimens.

Dr. Giralt rebutted this argument by citing data about averse events (AE) in studies of CAR-T therapies in RR MM patients like KarMMa-2, in which grade 3-4 neutropenia, anemia, and thrombocytopenia occurred in 94.6%, 45.9%, and 37.8% of patients respectively. Furthermore, 2 of 37 patients in KarMMA died (1 pneumonia, 1 pseudomonal sepsis), while rates of death from AEs related to ASCT occur in less than 1% of patients, according to Dr. Giralt.

Beyond a dearth of evidence thus far about the long term PFS, OS, and safety profile superiority of CAR-T therapies, compared with ASCT in treatment-naive MM patients, Dr. Giralt also noted the facts that CAR T-cell therapies are expensive and require manufacturing infrastructure also demonstrate that they cannot be easily adopted everywhere, even as a third-line therapy.

“In many places like Morocco, where I practice, we do not have access to CAR-T therapies,” said Sadia Zafad, MD, of the Clinique Al Madina Hematology and Oncology Center in Casablanca, Morocco. Dr. Zafad attended the debate.

A lack of access to CAR T is also a problem in the United States, where wait times for the therapy can stretch up to 6 months, getting insurance approval is challenging, and many patients simply don’t live near a center where CAR T-cell therapy is available. Citing all these factors, Dr. Giralt concluded: “Even if CAR T can be shown to have the same results as transplant, it is much more resource-intensive than transplant, and insurers are going to start saying there’s no necessary benefit. We have yet to use value as a primary end point, but as cancer care gets more and more expensive, that’s going to come up more, for CAR T and other novel therapies.”

Dr. Giralt reported relationships with Actinuum, Amgen, BMS, Celgene, Crisper, J&J, Jazz, Kite, Miltenyi, Novartis, Sanofi, and Takeda. Dr. Rossi disclosed ties with Adaptive, BMS, Celgene, JNJ, Sanofi & Genzyme. Dr. Zafad reported no disclosures.

More than 1 in 10 Americans over age 60 years will be diagnosed with cancer, according to the National Cancer Institute, making screening for the disease in older patients imperative. Much of the burden of cancer screening falls on primary care physicians. This news organization spoke recently with William L. Dahut, MD, chief scientific officer of the American Cancer Society, about the particular challenges of screening in older patients.

Question: How much does cancer screening change with age? What are the considerations for clinicians – what risks and comorbidities are important to consider in older populations?

Answer: We at the American Cancer Society are giving a lot of thought to how to help primary care practices keep up with screening, particularly with respect to guidelines, but also best practices where judgment is required, such as cancer screening in their older patients.

We’ve had a lot of conversations recently about cancer risk in the young, largely because data show rates are going up for colorectal and breast cancer in this population. But it’s not one size fits all. Screening for young women who have a BRCA gene, if they have dense breasts, or if they have a strong family history of breast cancer should be different from those who are at average risk of the disease.

But statistically, there are about 15 per 100,000 breast cancer diagnoses in women under the age of 40 while over the age of 65 it’s 443 per 100,000. So, the risk significantly increases with age but we should not have an arbitrary cut-off. The life expectancy of a woman at age 75 is about 13.5 years. If you’re over the age of 70 or 75, then it’s going to be comorbidities that you look at, as well as individual patient decisions. Patients may say, “I don’t want to ever go through a mammogram again, because I don’t want to have a biopsy again, and I’m not going to get treated.” Or they may say, “My mom died of metastatic breast cancer when she was 82 and I want to know.”
 

Q: How should primary care physicians interpret conflicting guidance from the major medical groups? For example, the American College of Gastroenterology and your own organization recommend colorectal cancer screening start at age 45 now. But the American College of Physicians recently came out and said 50. What is a well-meaning primary care physician supposed to do?

A: We make more of guideline differences than we should. Sometimes guideline differences aren’t a reflection of different judgments, but rather what data were available when the most recent update took place. For colorectal cancer screening, the ACS dropped the age to begin screening to 45 in 2018 based on a very careful consideration of disease burden data and within several years most other guideline developers reached the same conclusion.

However, I think it’s good for family practice and internal medicine doctors to know that significant GI symptoms in a young patient could be colorectal cancer. It’s not as if nobody sees a 34-year-old or 27-year-old with colorectal cancer. They should be aware that if something goes away in a day or two, that’s fine, but persistent GI symptoms need a cancer workup – colonoscopy or referral to a gastroenterologist. So that’s why I think age 45 is the time when folks should begin screening.
 

Q: What are the medical-legal issues for a physician who is trying to follow guideline-based care when there are different guidelines?

A: Any physician can say, “We follow the guidelines of this particular organization.” I don’t think anyone can say that an organization’s guidelines are malpractice. For individual physicians, following a set of office-based guidelines will hopefully keep them out of legal difficulty.

Q: What are the risks of overscreening, especially in breast cancer where false positives may result in invasive testing?

A: What people think of as overscreening takes a number of different forms. What one guideline would imply is overscreening is recommended screening by another guideline. I think we would all agree that in an average-risk population, beginning screening before it is recommended would be overscreening, and continuing screening when a patient has life-limiting comorbidities would constitute overscreening. Screening too frequently can constitute overscreening.

For example, many women report that their doctors still are advising a baseline mammogram at age 35. Most guideline-developing organizations would regard this as overscreening in an average-risk population.

I think we are also getting better, certainly in prostate cancer, about knowing who needs to be treated and not treated. There are a lot of cancers that would have been treated 20-30 years ago but now are being safely followed with PSA and MRI. We may be able to get to that point with breast cancer over time, too.
 

Q: Are you saying that there may be breast cancers for which active surveillance is appropriate? Is that already the case?

A: We’re not there yet. I think some of the DCIS breast cancers are part of the discussion on whether hormonal treatment or surgeries are done. I think people do have those discussions in the context of morbidity and life expectancy. Over time, we’re likely to have more cancers for which we won’t need surgical treatments.
 

Q: Why did the American Cancer Society change the upper limit for lung cancer screening from 75 to 80 years of age?

 A: For an individual older than 65, screening will now continue until the patient is 80, assuming the patient is in good health. According to the previous guideline, if a patient was 65 and more than 15 years beyond smoking cessation, then screening would end. This is exactly the time when we see lung cancers increase in the population and so a curable lung cancer would not previously have been detected by a screening CT scan. *  

Q: What role do the multicancer blood and DNA tests play in screening now?

A: As you know, the Exact Sciences Cologuard test is already included in major guidelines for colorectal cancer screening and covered by insurance. Our philosophy on multicancer early detection tests is that we’re supportive of Medicare reimbursement when two things occur: 1. When we know there’s clinical benefit, and 2. When the test has been approved by the FDA.

The multicancer early detection tests in development and undergoing prospective research would not now replace screening for the cancers with established screening programs, but if they are shown to have clinical utility for the cancers in their panel, we would be able to reduce deaths from cancers that mostly are diagnosed at late stages and have poor prognoses.

There’s going to be a need for expertise in primary care practices to help interpret the tests. These are new questions, which are well beyond what even the typical oncologist is trained in, much less primary care physicians. We and other organizations are working on providing those answers.
 

Q: While we’re on the subject of the future, how do you envision AI helping or hindering cancer screening specifically in primary care?

A: I think AI is going to help things for a couple of reasons. The ability of AI is to get through data quickly and get you information that’s personalized and useful. If AI tools could let a patient know their individual risk of a cancer in the near and long term, that would help the primary care doctor screen in an individualized way. I think AI is going to be able to improve both diagnostic radiology and pathology, and could make a very big difference in settings outside of large cancer centers that operate at high volume every day. The data look very promising for AI to contribute to risk estimation by operating like a second reader in imaging and pathology.
 

Q: Anything else you’d like to say on this subject that clinicians should know?

A: The questions about whether or not patients should be screened is being pushed on family practice doctors and internists and these questions require a relationship with the patient. A hard stopping point at age 70 when lots of people will live 20 years or more doesn’t make sense.

There’s very little data from randomized clinical trials of screening people over the age of 70. We know that cancer risk does obviously increase with age, particularly prostate and breast cancer. And these are the cancers that are going to be the most common in your practices. If someone has a known mutation, I think you’re going to look differently at screening them. And first-degree family members, particularly for the more aggressive cancers, should be considered for screening.

My philosophy on cancer screening in the elderly is that I think the guidelines are guidelines. If patients have very limited life expectancy, then they shouldn’t be screened. There are calculators that estimate life expectancy in the context of current age and current health status, and these can be useful for decision making and counseling. Patients never think their life expectancy is shorter than 10 years. If their life expectancy is longer than 10 years, then I think, all things being equal, they should continue screening, but the question of ongoing screening needs to be periodically revisited.

*This story was updated on Nov. 1, 2023.
 

More than 1 in 10 Americans over age 60 years will be diagnosed with cancer, according to the National Cancer Institute, making screening for the disease in older patients imperative. Much of the burden of cancer screening falls on primary care physicians. This news organization spoke recently with William L. Dahut, MD, chief scientific officer of the American Cancer Society, about the particular challenges of screening in older patients.

Question: How much does cancer screening change with age? What are the considerations for clinicians – what risks and comorbidities are important to consider in older populations?

Answer: We at the American Cancer Society are giving a lot of thought to how to help primary care practices keep up with screening, particularly with respect to guidelines, but also best practices where judgment is required, such as cancer screening in their older patients.

We’ve had a lot of conversations recently about cancer risk in the young, largely because data show rates are going up for colorectal and breast cancer in this population. But it’s not one size fits all. Screening for young women who have a BRCA gene, if they have dense breasts, or if they have a strong family history of breast cancer should be different from those who are at average risk of the disease.

But statistically, there are about 15 per 100,000 breast cancer diagnoses in women under the age of 40 while over the age of 65 it’s 443 per 100,000. So, the risk significantly increases with age but we should not have an arbitrary cut-off. The life expectancy of a woman at age 75 is about 13.5 years. If you’re over the age of 70 or 75, then it’s going to be comorbidities that you look at, as well as individual patient decisions. Patients may say, “I don’t want to ever go through a mammogram again, because I don’t want to have a biopsy again, and I’m not going to get treated.” Or they may say, “My mom died of metastatic breast cancer when she was 82 and I want to know.”
 

Q: How should primary care physicians interpret conflicting guidance from the major medical groups? For example, the American College of Gastroenterology and your own organization recommend colorectal cancer screening start at age 45 now. But the American College of Physicians recently came out and said 50. What is a well-meaning primary care physician supposed to do?

A: We make more of guideline differences than we should. Sometimes guideline differences aren’t a reflection of different judgments, but rather what data were available when the most recent update took place. For colorectal cancer screening, the ACS dropped the age to begin screening to 45 in 2018 based on a very careful consideration of disease burden data and within several years most other guideline developers reached the same conclusion.

However, I think it’s good for family practice and internal medicine doctors to know that significant GI symptoms in a young patient could be colorectal cancer. It’s not as if nobody sees a 34-year-old or 27-year-old with colorectal cancer. They should be aware that if something goes away in a day or two, that’s fine, but persistent GI symptoms need a cancer workup – colonoscopy or referral to a gastroenterologist. So that’s why I think age 45 is the time when folks should begin screening.
 

Q: What are the medical-legal issues for a physician who is trying to follow guideline-based care when there are different guidelines?

A: Any physician can say, “We follow the guidelines of this particular organization.” I don’t think anyone can say that an organization’s guidelines are malpractice. For individual physicians, following a set of office-based guidelines will hopefully keep them out of legal difficulty.

Q: What are the risks of overscreening, especially in breast cancer where false positives may result in invasive testing?

A: What people think of as overscreening takes a number of different forms. What one guideline would imply is overscreening is recommended screening by another guideline. I think we would all agree that in an average-risk population, beginning screening before it is recommended would be overscreening, and continuing screening when a patient has life-limiting comorbidities would constitute overscreening. Screening too frequently can constitute overscreening.

For example, many women report that their doctors still are advising a baseline mammogram at age 35. Most guideline-developing organizations would regard this as overscreening in an average-risk population.

I think we are also getting better, certainly in prostate cancer, about knowing who needs to be treated and not treated. There are a lot of cancers that would have been treated 20-30 years ago but now are being safely followed with PSA and MRI. We may be able to get to that point with breast cancer over time, too.
 

Q: Are you saying that there may be breast cancers for which active surveillance is appropriate? Is that already the case?

A: We’re not there yet. I think some of the DCIS breast cancers are part of the discussion on whether hormonal treatment or surgeries are done. I think people do have those discussions in the context of morbidity and life expectancy. Over time, we’re likely to have more cancers for which we won’t need surgical treatments.
 

Q: Why did the American Cancer Society change the upper limit for lung cancer screening from 75 to 80 years of age?

 A: For an individual older than 65, screening will now continue until the patient is 80, assuming the patient is in good health. According to the previous guideline, if a patient was 65 and more than 15 years beyond smoking cessation, then screening would end. This is exactly the time when we see lung cancers increase in the population and so a curable lung cancer would not previously have been detected by a screening CT scan. *  

Q: What role do the multicancer blood and DNA tests play in screening now?

A: As you know, the Exact Sciences Cologuard test is already included in major guidelines for colorectal cancer screening and covered by insurance. Our philosophy on multicancer early detection tests is that we’re supportive of Medicare reimbursement when two things occur: 1. When we know there’s clinical benefit, and 2. When the test has been approved by the FDA.

The multicancer early detection tests in development and undergoing prospective research would not now replace screening for the cancers with established screening programs, but if they are shown to have clinical utility for the cancers in their panel, we would be able to reduce deaths from cancers that mostly are diagnosed at late stages and have poor prognoses.

There’s going to be a need for expertise in primary care practices to help interpret the tests. These are new questions, which are well beyond what even the typical oncologist is trained in, much less primary care physicians. We and other organizations are working on providing those answers.
 

Q: While we’re on the subject of the future, how do you envision AI helping or hindering cancer screening specifically in primary care?

A: I think AI is going to help things for a couple of reasons. The ability of AI is to get through data quickly and get you information that’s personalized and useful. If AI tools could let a patient know their individual risk of a cancer in the near and long term, that would help the primary care doctor screen in an individualized way. I think AI is going to be able to improve both diagnostic radiology and pathology, and could make a very big difference in settings outside of large cancer centers that operate at high volume every day. The data look very promising for AI to contribute to risk estimation by operating like a second reader in imaging and pathology.
 

Q: Anything else you’d like to say on this subject that clinicians should know?

A: The questions about whether or not patients should be screened is being pushed on family practice doctors and internists and these questions require a relationship with the patient. A hard stopping point at age 70 when lots of people will live 20 years or more doesn’t make sense.

There’s very little data from randomized clinical trials of screening people over the age of 70. We know that cancer risk does obviously increase with age, particularly prostate and breast cancer. And these are the cancers that are going to be the most common in your practices. If someone has a known mutation, I think you’re going to look differently at screening them. And first-degree family members, particularly for the more aggressive cancers, should be considered for screening.

My philosophy on cancer screening in the elderly is that I think the guidelines are guidelines. If patients have very limited life expectancy, then they shouldn’t be screened. There are calculators that estimate life expectancy in the context of current age and current health status, and these can be useful for decision making and counseling. Patients never think their life expectancy is shorter than 10 years. If their life expectancy is longer than 10 years, then I think, all things being equal, they should continue screening, but the question of ongoing screening needs to be periodically revisited.

*This story was updated on Nov. 1, 2023.
 

More than 1 in 10 Americans over age 60 years will be diagnosed with cancer, according to the National Cancer Institute, making screening for the disease in older patients imperative. Much of the burden of cancer screening falls on primary care physicians. This news organization spoke recently with William L. Dahut, MD, chief scientific officer of the American Cancer Society, about the particular challenges of screening in older patients.

Question: How much does cancer screening change with age? What are the considerations for clinicians – what risks and comorbidities are important to consider in older populations?

Answer: We at the American Cancer Society are giving a lot of thought to how to help primary care practices keep up with screening, particularly with respect to guidelines, but also best practices where judgment is required, such as cancer screening in their older patients.

We’ve had a lot of conversations recently about cancer risk in the young, largely because data show rates are going up for colorectal and breast cancer in this population. But it’s not one size fits all. Screening for young women who have a BRCA gene, if they have dense breasts, or if they have a strong family history of breast cancer should be different from those who are at average risk of the disease.

But statistically, there are about 15 per 100,000 breast cancer diagnoses in women under the age of 40 while over the age of 65 it’s 443 per 100,000. So, the risk significantly increases with age but we should not have an arbitrary cut-off. The life expectancy of a woman at age 75 is about 13.5 years. If you’re over the age of 70 or 75, then it’s going to be comorbidities that you look at, as well as individual patient decisions. Patients may say, “I don’t want to ever go through a mammogram again, because I don’t want to have a biopsy again, and I’m not going to get treated.” Or they may say, “My mom died of metastatic breast cancer when she was 82 and I want to know.”
 

Q: How should primary care physicians interpret conflicting guidance from the major medical groups? For example, the American College of Gastroenterology and your own organization recommend colorectal cancer screening start at age 45 now. But the American College of Physicians recently came out and said 50. What is a well-meaning primary care physician supposed to do?

A: We make more of guideline differences than we should. Sometimes guideline differences aren’t a reflection of different judgments, but rather what data were available when the most recent update took place. For colorectal cancer screening, the ACS dropped the age to begin screening to 45 in 2018 based on a very careful consideration of disease burden data and within several years most other guideline developers reached the same conclusion.

However, I think it’s good for family practice and internal medicine doctors to know that significant GI symptoms in a young patient could be colorectal cancer. It’s not as if nobody sees a 34-year-old or 27-year-old with colorectal cancer. They should be aware that if something goes away in a day or two, that’s fine, but persistent GI symptoms need a cancer workup – colonoscopy or referral to a gastroenterologist. So that’s why I think age 45 is the time when folks should begin screening.
 

Q: What are the medical-legal issues for a physician who is trying to follow guideline-based care when there are different guidelines?

A: Any physician can say, “We follow the guidelines of this particular organization.” I don’t think anyone can say that an organization’s guidelines are malpractice. For individual physicians, following a set of office-based guidelines will hopefully keep them out of legal difficulty.

Q: What are the risks of overscreening, especially in breast cancer where false positives may result in invasive testing?

A: What people think of as overscreening takes a number of different forms. What one guideline would imply is overscreening is recommended screening by another guideline. I think we would all agree that in an average-risk population, beginning screening before it is recommended would be overscreening, and continuing screening when a patient has life-limiting comorbidities would constitute overscreening. Screening too frequently can constitute overscreening.

For example, many women report that their doctors still are advising a baseline mammogram at age 35. Most guideline-developing organizations would regard this as overscreening in an average-risk population.

I think we are also getting better, certainly in prostate cancer, about knowing who needs to be treated and not treated. There are a lot of cancers that would have been treated 20-30 years ago but now are being safely followed with PSA and MRI. We may be able to get to that point with breast cancer over time, too.
 

Q: Are you saying that there may be breast cancers for which active surveillance is appropriate? Is that already the case?

A: We’re not there yet. I think some of the DCIS breast cancers are part of the discussion on whether hormonal treatment or surgeries are done. I think people do have those discussions in the context of morbidity and life expectancy. Over time, we’re likely to have more cancers for which we won’t need surgical treatments.
 

Q: Why did the American Cancer Society change the upper limit for lung cancer screening from 75 to 80 years of age?

 A: For an individual older than 65, screening will now continue until the patient is 80, assuming the patient is in good health. According to the previous guideline, if a patient was 65 and more than 15 years beyond smoking cessation, then screening would end. This is exactly the time when we see lung cancers increase in the population and so a curable lung cancer would not previously have been detected by a screening CT scan. *  

Q: What role do the multicancer blood and DNA tests play in screening now?

A: As you know, the Exact Sciences Cologuard test is already included in major guidelines for colorectal cancer screening and covered by insurance. Our philosophy on multicancer early detection tests is that we’re supportive of Medicare reimbursement when two things occur: 1. When we know there’s clinical benefit, and 2. When the test has been approved by the FDA.

The multicancer early detection tests in development and undergoing prospective research would not now replace screening for the cancers with established screening programs, but if they are shown to have clinical utility for the cancers in their panel, we would be able to reduce deaths from cancers that mostly are diagnosed at late stages and have poor prognoses.

There’s going to be a need for expertise in primary care practices to help interpret the tests. These are new questions, which are well beyond what even the typical oncologist is trained in, much less primary care physicians. We and other organizations are working on providing those answers.
 

Q: While we’re on the subject of the future, how do you envision AI helping or hindering cancer screening specifically in primary care?

A: I think AI is going to help things for a couple of reasons. The ability of AI is to get through data quickly and get you information that’s personalized and useful. If AI tools could let a patient know their individual risk of a cancer in the near and long term, that would help the primary care doctor screen in an individualized way. I think AI is going to be able to improve both diagnostic radiology and pathology, and could make a very big difference in settings outside of large cancer centers that operate at high volume every day. The data look very promising for AI to contribute to risk estimation by operating like a second reader in imaging and pathology.
 

Q: Anything else you’d like to say on this subject that clinicians should know?

A: The questions about whether or not patients should be screened is being pushed on family practice doctors and internists and these questions require a relationship with the patient. A hard stopping point at age 70 when lots of people will live 20 years or more doesn’t make sense.

There’s very little data from randomized clinical trials of screening people over the age of 70. We know that cancer risk does obviously increase with age, particularly prostate and breast cancer. And these are the cancers that are going to be the most common in your practices. If someone has a known mutation, I think you’re going to look differently at screening them. And first-degree family members, particularly for the more aggressive cancers, should be considered for screening.

My philosophy on cancer screening in the elderly is that I think the guidelines are guidelines. If patients have very limited life expectancy, then they shouldn’t be screened. There are calculators that estimate life expectancy in the context of current age and current health status, and these can be useful for decision making and counseling. Patients never think their life expectancy is shorter than 10 years. If their life expectancy is longer than 10 years, then I think, all things being equal, they should continue screening, but the question of ongoing screening needs to be periodically revisited.

*This story was updated on Nov. 1, 2023.
 

TOPLINE:

New Canadian guidelines for the management of high-risk drinking and alcohol use disorder (AUD) include 15 recommendations on screening, diagnosis, withdrawal management, and ongoing treatment including psychosocial interventions, drug therapies, and community-based programs.

METHODOLOGY:

• The Canadian Research Initiative in Substance Misuse convened a 36-member committee of clinicians, researchers, people with personal experience of alcohol use, and Indigenous or Métis individuals to develop the guidelines, using the Appraisal of Guidelines for Research and Evaluation Instrument.
• Risk assessment was based on Alcohol Use Disorders Identification Test-Consumption scores.
• The definition of AUD was based on patients experiencing “clinically significant impairment or distress” from their alcohol use, with severity being mild, moderate, or severe.

TAKEAWAY:

• All adult and youth patients at moderate or high risk for AUD should be screened annually for alcohol use, and those screening positive should receive a diagnostic interview for AUD and an individualized treatment plan.
• Assessment of severe alcohol withdrawal complications should include clinical parameters such as past seizures or delirium tremens and the Prediction of Alcohol Withdrawal Severity Scale, with treatment including nonbenzodiazepine medications for low-risk patients and a short-term benzodiazepine prescription for high-risk patients, ideally in an inpatient setting.
• All patients with AUD should be referred for psychosocial treatment, and those with moderate to severe AUD should be offered naltrexone, acamprosate, topiramate, or gabapentin, depending on contraindications and effectiveness.
• Antipsychotics or SSRI antidepressants have little benefit and may worsen outcomes and should not be prescribed for AUD.

IN PRACTICE:

The authors noted that more than half of people aged 15 years or older in Canada drink more than the recommended amount, and about 18% meet the definition for AUD. “The aim of this guideline is to support primary care providers and services to offer more effective treatments routinely to patients with AUD as the standard of practice, with resulting improvements in health as well as potential for considerable cost savings in health and social systems,” the investigators write. They also note that policy makers can substantially improve standards of care by promoting adoption of the guideline and its recommendations.

SOURCE:

The article was written by Evan Wood, MD, PhD, professor of medicine, University of British Columbia, Vancouver, and colleagues. It was published online in the Canadian Medical Association Journal.

LIMITATIONS:

The guideline was published more than 3 years after the initial literature search in September 2020 and did not include comprehensive guidance for AUD with co-occurring substance use disorders or with severe mental health conditions. Certain groups, including immigrant and refugee populations, were not represented.

DISCLOSURES:

Development of the guideline received support from Health Canada’s Substance Use and Addictions Program, Canadian Institutes of Health Research, and BC Centre on Substance Use. No committee members disclosed direct monetary or nonmonetary support from alcohol or pharmaceutical industry sources within the past 5 years, or that their clinical revenue would be influenced by the guideline recommendations.

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

TOPLINE:

New Canadian guidelines for the management of high-risk drinking and alcohol use disorder (AUD) include 15 recommendations on screening, diagnosis, withdrawal management, and ongoing treatment including psychosocial interventions, drug therapies, and community-based programs.

METHODOLOGY:

• The Canadian Research Initiative in Substance Misuse convened a 36-member committee of clinicians, researchers, people with personal experience of alcohol use, and Indigenous or Métis individuals to develop the guidelines, using the Appraisal of Guidelines for Research and Evaluation Instrument.
• Risk assessment was based on Alcohol Use Disorders Identification Test-Consumption scores.
• The definition of AUD was based on patients experiencing “clinically significant impairment or distress” from their alcohol use, with severity being mild, moderate, or severe.

TAKEAWAY:

• All adult and youth patients at moderate or high risk for AUD should be screened annually for alcohol use, and those screening positive should receive a diagnostic interview for AUD and an individualized treatment plan.
• Assessment of severe alcohol withdrawal complications should include clinical parameters such as past seizures or delirium tremens and the Prediction of Alcohol Withdrawal Severity Scale, with treatment including nonbenzodiazepine medications for low-risk patients and a short-term benzodiazepine prescription for high-risk patients, ideally in an inpatient setting.
• All patients with AUD should be referred for psychosocial treatment, and those with moderate to severe AUD should be offered naltrexone, acamprosate, topiramate, or gabapentin, depending on contraindications and effectiveness.
• Antipsychotics or SSRI antidepressants have little benefit and may worsen outcomes and should not be prescribed for AUD.

IN PRACTICE:

The authors noted that more than half of people aged 15 years or older in Canada drink more than the recommended amount, and about 18% meet the definition for AUD. “The aim of this guideline is to support primary care providers and services to offer more effective treatments routinely to patients with AUD as the standard of practice, with resulting improvements in health as well as potential for considerable cost savings in health and social systems,” the investigators write. They also note that policy makers can substantially improve standards of care by promoting adoption of the guideline and its recommendations.

SOURCE:

The article was written by Evan Wood, MD, PhD, professor of medicine, University of British Columbia, Vancouver, and colleagues. It was published online in the Canadian Medical Association Journal.

LIMITATIONS:

The guideline was published more than 3 years after the initial literature search in September 2020 and did not include comprehensive guidance for AUD with co-occurring substance use disorders or with severe mental health conditions. Certain groups, including immigrant and refugee populations, were not represented.

DISCLOSURES:

Development of the guideline received support from Health Canada’s Substance Use and Addictions Program, Canadian Institutes of Health Research, and BC Centre on Substance Use. No committee members disclosed direct monetary or nonmonetary support from alcohol or pharmaceutical industry sources within the past 5 years, or that their clinical revenue would be influenced by the guideline recommendations.

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

TOPLINE:

New Canadian guidelines for the management of high-risk drinking and alcohol use disorder (AUD) include 15 recommendations on screening, diagnosis, withdrawal management, and ongoing treatment including psychosocial interventions, drug therapies, and community-based programs.

METHODOLOGY:

• The Canadian Research Initiative in Substance Misuse convened a 36-member committee of clinicians, researchers, people with personal experience of alcohol use, and Indigenous or Métis individuals to develop the guidelines, using the Appraisal of Guidelines for Research and Evaluation Instrument.
• Risk assessment was based on Alcohol Use Disorders Identification Test-Consumption scores.
• The definition of AUD was based on patients experiencing “clinically significant impairment or distress” from their alcohol use, with severity being mild, moderate, or severe.

TAKEAWAY:

• All adult and youth patients at moderate or high risk for AUD should be screened annually for alcohol use, and those screening positive should receive a diagnostic interview for AUD and an individualized treatment plan.
• Assessment of severe alcohol withdrawal complications should include clinical parameters such as past seizures or delirium tremens and the Prediction of Alcohol Withdrawal Severity Scale, with treatment including nonbenzodiazepine medications for low-risk patients and a short-term benzodiazepine prescription for high-risk patients, ideally in an inpatient setting.
• All patients with AUD should be referred for psychosocial treatment, and those with moderate to severe AUD should be offered naltrexone, acamprosate, topiramate, or gabapentin, depending on contraindications and effectiveness.
• Antipsychotics or SSRI antidepressants have little benefit and may worsen outcomes and should not be prescribed for AUD.

IN PRACTICE:

The authors noted that more than half of people aged 15 years or older in Canada drink more than the recommended amount, and about 18% meet the definition for AUD. “The aim of this guideline is to support primary care providers and services to offer more effective treatments routinely to patients with AUD as the standard of practice, with resulting improvements in health as well as potential for considerable cost savings in health and social systems,” the investigators write. They also note that policy makers can substantially improve standards of care by promoting adoption of the guideline and its recommendations.

SOURCE:

The article was written by Evan Wood, MD, PhD, professor of medicine, University of British Columbia, Vancouver, and colleagues. It was published online in the Canadian Medical Association Journal.

LIMITATIONS:

The guideline was published more than 3 years after the initial literature search in September 2020 and did not include comprehensive guidance for AUD with co-occurring substance use disorders or with severe mental health conditions. Certain groups, including immigrant and refugee populations, were not represented.

DISCLOSURES:

Development of the guideline received support from Health Canada’s Substance Use and Addictions Program, Canadian Institutes of Health Research, and BC Centre on Substance Use. No committee members disclosed direct monetary or nonmonetary support from alcohol or pharmaceutical industry sources within the past 5 years, or that their clinical revenue would be influenced by the guideline recommendations.

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

The investigational anti-body drug conjugate (ADC) datopotamab deruxtecan (Dato-DXd) was associated with both improved progression-free survival and better safety than standard chemotherapy for patients with metastatic HER-2 negative (HR+/HER2–) breast cancer resistant to endocrine therapy, data from the phase 3 TROPION-Breast01 trial showed.

At a median follow-up of 10.8 months, the median progression-free survival (PFS) was 6.9 months for patients randomly assigned to receive Dato-DXd, compared with 4.9 months for the investigator’s choice of chemotherapy with either eribulin mesylate, vinorelbine, capecitabine, or gemcitabine. This difference translated into a 37% reduction in risk of disease progression with the ADC, reported Aditya Bardia, MD, MPH, director of the breast cancer research program at the Mass General Cancer Center in Boston.

Patients who received Dato-DXd had less than half the number of grade 3 or greater toxicities and fewer dose reductions or interruptions than patients who received chemotherapy, he noted in an oral abstract session at the 2023 European Society for Medical Oncology Congress.

“Overall, results support Dato-DXd as a potential new therapeutic option for patients with metastatic hormone receptor–positive breast cancer,” he said.
 

Different ADC, same target

Dr. Bardia noted that there is an unmet need for effective therapies for patients with metastatic HR+/HER2– breast cancer who experience disease progression after endocrine therapy and at least one line of systemic therapy.

Although chemotherapy is widely used in this population, it’s associated with low response rates, poor prognosis, and significant toxicities, including hematologic and neurologic adverse events (AEs).

Dato-DXd is composed of a monoclonal antibody targeting TROP2, a transmembrane glycoprotein overexpressed in cancer cells, linked to the topoisomerase 1 inhibitor deruxtecan as the toxic payload.

Dr. Bardia explained that Dato-DXd has four properties that distinguish it from other TROP2-directed ADCs: an optimized drug to antibody ratio of 4, a stable linker-payload, tumor-selective cleavable linker, both of which reduce off-target toxicities, and a bystander antitumor effect that can target TROP2-expressing cells in the tumor microenvironment.

In the phase I TROPION-PanTumor01 trial, Dato-DXd had promising anti-tumor activity and a manageable safety profile in patients with metastatic HR+/HER2– breast cancer, paving the way for the TROPION-Breast01 study reported here.
 

Efficacy results

In the Breast01 trial, 732 patients with inoperable or metastatic HR+/HER2– breast cancer previously treated with 1 or 2 lines of chemotherapy that had progressed on endocrine therapy were stratified by number of prior chemotherapy lines, geographic region, and prior CDK4/6 inhibitor status, and then randomized to either Dato-DXd 6 mg/kg intravenously on day 1 of each 3-week cycle (365 patients) or to investigator’s choice of chemotherapy (367 patients). According to the protocol, chemotherapy could be eribulin mesylate, vinorelbine, or gemcitabine delivered via IV on days 1 and 8 every 3 weeks, or oral capecitabine on days 1 through 14 of every 3-week cycle.

At the time of data cutoff, 93 patients assigned to the ADC and 39 assigned to chemotherapy were still on treatment.

As noted before, median PFS by blinded independent central review, one of two primary endpoints, was 6.9 months with Dato-DXd, compared with 4.9 months with chemotherapy, translating into a hazard ratio for progression of 0.63 (P < .0001)­­­.

The benefit was seen across nearly all subgroups except among patients who had not previously received a CDK4/6 inhibitor, and patients who had received a prior anthracycline but not a taxane.­

Objective response rates (ORR) were 36.4% with Dato-DXd (99.5% partial and .5% complete response), compared with 22.9% with chemotherapy (all partial responses; P values not reported).

Overall survival data, the other primary endpoint, were not mature at a median OS follow-up of 9.7 months, and will be reported at a later date.
 

­Safety results

“In terms of safety, the rate of grade 3 or higher treatment-related AEs in the Dato-DXd arm was less as compared to investigator choice of chemotherapy. This is a bit different from most of the studies; in general we see that the rate of adverse events is higher in the intervention arm as compared to the control arm,” Dr. Bardia commented.

Rates of dose reductions and dose interruptions due to treatment-related AEs were also lower with the ADC.

There were no patient deaths associated with Dato-DXd. One patient assigned to chemotherapy died from a complication associated with febrile neutropenia.

Most treatment-related AEs occurring in 15% of patients and AEs of special interest were of grade 1 and manageable.

The most common toxicities seen with the ADC were oral mucositis and dry eye. The most common side effects with chemotherapy were neutropenia and anemia, “the usual side effects you would expect with chemotherapy,” Dr. Bardia said, pointing out that the rate of grade 3 neutropenia was 31% with standard chemotherapy, compared with 1% with Dato-DXd.
 

Good, but we can do better

ESMO invited discussant Sarat Chandarlapaty, MD, PhD, a breast oncologist at Memorial Sloan Kettering Cancer Center in New York, commented that while the trial data showed superior efficacy and safety with Dato-DXd, compared with standard chemotherapy, it’s still unclear how it and other ADCs on the market and in the research pipeline may be used in therapy for this patient population.

“Would I rather prescribe Dato-DXd or more chemo after 1 to 2 lines of chemo in unselected HR-positive, HER2-negative breast cancer? The answer is Dato-DXd, but it leaves several unanswered questions for us,” he said.

“First, we have two ADCs approved in HR-positive breast cancer: another TROP2 ADC sacituzumab [govitecan] and a HER2 ADC trastuzumab deruxtecan. Would I rather give Dato over one of these? I don’t have an answer,” he added.

In addition, it’s unknown whether these drugs, which have the same topoisomerase-targeted payload, could be given in sequence, and there are as yet no clear answers as to whether patients might do better with Dato-DXd or with a PIK3ca inhibitor.

“I would say that the elephant in the room is really another question, and that is, ‘Is Dato-DXd in this context delivering on the promise of an ADC?’ ” Dr. Chandarlapaty said.

“I think translational research is urgently needed if we’re ultimately to deliver on the promise of these agents in the clinic,” he concluded.

The TROPION-Breast01 study is sponsored AstraZeneca, which is collaborating with Daiichi-Sankyo on global development and commercialization of Dato-DXd. Dr. Bardia disclosed advisory board activities and institutional research funding from AstraZeneca and Daiichi-Sankyo and others. Dr. Chandarlapaty disclosed research funding from both companies, and advisory board activities for AstraZeneca and others.

The investigational anti-body drug conjugate (ADC) datopotamab deruxtecan (Dato-DXd) was associated with both improved progression-free survival and better safety than standard chemotherapy for patients with metastatic HER-2 negative (HR+/HER2–) breast cancer resistant to endocrine therapy, data from the phase 3 TROPION-Breast01 trial showed.

At a median follow-up of 10.8 months, the median progression-free survival (PFS) was 6.9 months for patients randomly assigned to receive Dato-DXd, compared with 4.9 months for the investigator’s choice of chemotherapy with either eribulin mesylate, vinorelbine, capecitabine, or gemcitabine. This difference translated into a 37% reduction in risk of disease progression with the ADC, reported Aditya Bardia, MD, MPH, director of the breast cancer research program at the Mass General Cancer Center in Boston.

Patients who received Dato-DXd had less than half the number of grade 3 or greater toxicities and fewer dose reductions or interruptions than patients who received chemotherapy, he noted in an oral abstract session at the 2023 European Society for Medical Oncology Congress.

“Overall, results support Dato-DXd as a potential new therapeutic option for patients with metastatic hormone receptor–positive breast cancer,” he said.
 

Different ADC, same target

Dr. Bardia noted that there is an unmet need for effective therapies for patients with metastatic HR+/HER2– breast cancer who experience disease progression after endocrine therapy and at least one line of systemic therapy.

Although chemotherapy is widely used in this population, it’s associated with low response rates, poor prognosis, and significant toxicities, including hematologic and neurologic adverse events (AEs).

Dato-DXd is composed of a monoclonal antibody targeting TROP2, a transmembrane glycoprotein overexpressed in cancer cells, linked to the topoisomerase 1 inhibitor deruxtecan as the toxic payload.

Dr. Bardia explained that Dato-DXd has four properties that distinguish it from other TROP2-directed ADCs: an optimized drug to antibody ratio of 4, a stable linker-payload, tumor-selective cleavable linker, both of which reduce off-target toxicities, and a bystander antitumor effect that can target TROP2-expressing cells in the tumor microenvironment.

In the phase I TROPION-PanTumor01 trial, Dato-DXd had promising anti-tumor activity and a manageable safety profile in patients with metastatic HR+/HER2– breast cancer, paving the way for the TROPION-Breast01 study reported here.
 

Efficacy results

In the Breast01 trial, 732 patients with inoperable or metastatic HR+/HER2– breast cancer previously treated with 1 or 2 lines of chemotherapy that had progressed on endocrine therapy were stratified by number of prior chemotherapy lines, geographic region, and prior CDK4/6 inhibitor status, and then randomized to either Dato-DXd 6 mg/kg intravenously on day 1 of each 3-week cycle (365 patients) or to investigator’s choice of chemotherapy (367 patients). According to the protocol, chemotherapy could be eribulin mesylate, vinorelbine, or gemcitabine delivered via IV on days 1 and 8 every 3 weeks, or oral capecitabine on days 1 through 14 of every 3-week cycle.

At the time of data cutoff, 93 patients assigned to the ADC and 39 assigned to chemotherapy were still on treatment.

As noted before, median PFS by blinded independent central review, one of two primary endpoints, was 6.9 months with Dato-DXd, compared with 4.9 months with chemotherapy, translating into a hazard ratio for progression of 0.63 (P < .0001)­­­.

The benefit was seen across nearly all subgroups except among patients who had not previously received a CDK4/6 inhibitor, and patients who had received a prior anthracycline but not a taxane.­

Objective response rates (ORR) were 36.4% with Dato-DXd (99.5% partial and .5% complete response), compared with 22.9% with chemotherapy (all partial responses; P values not reported).

Overall survival data, the other primary endpoint, were not mature at a median OS follow-up of 9.7 months, and will be reported at a later date.
 

­Safety results

“In terms of safety, the rate of grade 3 or higher treatment-related AEs in the Dato-DXd arm was less as compared to investigator choice of chemotherapy. This is a bit different from most of the studies; in general we see that the rate of adverse events is higher in the intervention arm as compared to the control arm,” Dr. Bardia commented.

Rates of dose reductions and dose interruptions due to treatment-related AEs were also lower with the ADC.

There were no patient deaths associated with Dato-DXd. One patient assigned to chemotherapy died from a complication associated with febrile neutropenia.

Most treatment-related AEs occurring in 15% of patients and AEs of special interest were of grade 1 and manageable.

The most common toxicities seen with the ADC were oral mucositis and dry eye. The most common side effects with chemotherapy were neutropenia and anemia, “the usual side effects you would expect with chemotherapy,” Dr. Bardia said, pointing out that the rate of grade 3 neutropenia was 31% with standard chemotherapy, compared with 1% with Dato-DXd.
 

Good, but we can do better

ESMO invited discussant Sarat Chandarlapaty, MD, PhD, a breast oncologist at Memorial Sloan Kettering Cancer Center in New York, commented that while the trial data showed superior efficacy and safety with Dato-DXd, compared with standard chemotherapy, it’s still unclear how it and other ADCs on the market and in the research pipeline may be used in therapy for this patient population.

“Would I rather prescribe Dato-DXd or more chemo after 1 to 2 lines of chemo in unselected HR-positive, HER2-negative breast cancer? The answer is Dato-DXd, but it leaves several unanswered questions for us,” he said.

“First, we have two ADCs approved in HR-positive breast cancer: another TROP2 ADC sacituzumab [govitecan] and a HER2 ADC trastuzumab deruxtecan. Would I rather give Dato over one of these? I don’t have an answer,” he added.

In addition, it’s unknown whether these drugs, which have the same topoisomerase-targeted payload, could be given in sequence, and there are as yet no clear answers as to whether patients might do better with Dato-DXd or with a PIK3ca inhibitor.

“I would say that the elephant in the room is really another question, and that is, ‘Is Dato-DXd in this context delivering on the promise of an ADC?’ ” Dr. Chandarlapaty said.

“I think translational research is urgently needed if we’re ultimately to deliver on the promise of these agents in the clinic,” he concluded.

The TROPION-Breast01 study is sponsored AstraZeneca, which is collaborating with Daiichi-Sankyo on global development and commercialization of Dato-DXd. Dr. Bardia disclosed advisory board activities and institutional research funding from AstraZeneca and Daiichi-Sankyo and others. Dr. Chandarlapaty disclosed research funding from both companies, and advisory board activities for AstraZeneca and others.

The investigational anti-body drug conjugate (ADC) datopotamab deruxtecan (Dato-DXd) was associated with both improved progression-free survival and better safety than standard chemotherapy for patients with metastatic HER-2 negative (HR+/HER2–) breast cancer resistant to endocrine therapy, data from the phase 3 TROPION-Breast01 trial showed.

At a median follow-up of 10.8 months, the median progression-free survival (PFS) was 6.9 months for patients randomly assigned to receive Dato-DXd, compared with 4.9 months for the investigator’s choice of chemotherapy with either eribulin mesylate, vinorelbine, capecitabine, or gemcitabine. This difference translated into a 37% reduction in risk of disease progression with the ADC, reported Aditya Bardia, MD, MPH, director of the breast cancer research program at the Mass General Cancer Center in Boston.

Patients who received Dato-DXd had less than half the number of grade 3 or greater toxicities and fewer dose reductions or interruptions than patients who received chemotherapy, he noted in an oral abstract session at the 2023 European Society for Medical Oncology Congress.

“Overall, results support Dato-DXd as a potential new therapeutic option for patients with metastatic hormone receptor–positive breast cancer,” he said.
 

Different ADC, same target

Dr. Bardia noted that there is an unmet need for effective therapies for patients with metastatic HR+/HER2– breast cancer who experience disease progression after endocrine therapy and at least one line of systemic therapy.

Although chemotherapy is widely used in this population, it’s associated with low response rates, poor prognosis, and significant toxicities, including hematologic and neurologic adverse events (AEs).

Dato-DXd is composed of a monoclonal antibody targeting TROP2, a transmembrane glycoprotein overexpressed in cancer cells, linked to the topoisomerase 1 inhibitor deruxtecan as the toxic payload.

Dr. Bardia explained that Dato-DXd has four properties that distinguish it from other TROP2-directed ADCs: an optimized drug to antibody ratio of 4, a stable linker-payload, tumor-selective cleavable linker, both of which reduce off-target toxicities, and a bystander antitumor effect that can target TROP2-expressing cells in the tumor microenvironment.

In the phase I TROPION-PanTumor01 trial, Dato-DXd had promising anti-tumor activity and a manageable safety profile in patients with metastatic HR+/HER2– breast cancer, paving the way for the TROPION-Breast01 study reported here.
 

Efficacy results

In the Breast01 trial, 732 patients with inoperable or metastatic HR+/HER2– breast cancer previously treated with 1 or 2 lines of chemotherapy that had progressed on endocrine therapy were stratified by number of prior chemotherapy lines, geographic region, and prior CDK4/6 inhibitor status, and then randomized to either Dato-DXd 6 mg/kg intravenously on day 1 of each 3-week cycle (365 patients) or to investigator’s choice of chemotherapy (367 patients). According to the protocol, chemotherapy could be eribulin mesylate, vinorelbine, or gemcitabine delivered via IV on days 1 and 8 every 3 weeks, or oral capecitabine on days 1 through 14 of every 3-week cycle.

At the time of data cutoff, 93 patients assigned to the ADC and 39 assigned to chemotherapy were still on treatment.

As noted before, median PFS by blinded independent central review, one of two primary endpoints, was 6.9 months with Dato-DXd, compared with 4.9 months with chemotherapy, translating into a hazard ratio for progression of 0.63 (P < .0001)­­­.

The benefit was seen across nearly all subgroups except among patients who had not previously received a CDK4/6 inhibitor, and patients who had received a prior anthracycline but not a taxane.­

Objective response rates (ORR) were 36.4% with Dato-DXd (99.5% partial and .5% complete response), compared with 22.9% with chemotherapy (all partial responses; P values not reported).

Overall survival data, the other primary endpoint, were not mature at a median OS follow-up of 9.7 months, and will be reported at a later date.
 

­Safety results

“In terms of safety, the rate of grade 3 or higher treatment-related AEs in the Dato-DXd arm was less as compared to investigator choice of chemotherapy. This is a bit different from most of the studies; in general we see that the rate of adverse events is higher in the intervention arm as compared to the control arm,” Dr. Bardia commented.

Rates of dose reductions and dose interruptions due to treatment-related AEs were also lower with the ADC.

There were no patient deaths associated with Dato-DXd. One patient assigned to chemotherapy died from a complication associated with febrile neutropenia.

Most treatment-related AEs occurring in 15% of patients and AEs of special interest were of grade 1 and manageable.

The most common toxicities seen with the ADC were oral mucositis and dry eye. The most common side effects with chemotherapy were neutropenia and anemia, “the usual side effects you would expect with chemotherapy,” Dr. Bardia said, pointing out that the rate of grade 3 neutropenia was 31% with standard chemotherapy, compared with 1% with Dato-DXd.
 

Good, but we can do better

ESMO invited discussant Sarat Chandarlapaty, MD, PhD, a breast oncologist at Memorial Sloan Kettering Cancer Center in New York, commented that while the trial data showed superior efficacy and safety with Dato-DXd, compared with standard chemotherapy, it’s still unclear how it and other ADCs on the market and in the research pipeline may be used in therapy for this patient population.

“Would I rather prescribe Dato-DXd or more chemo after 1 to 2 lines of chemo in unselected HR-positive, HER2-negative breast cancer? The answer is Dato-DXd, but it leaves several unanswered questions for us,” he said.

“First, we have two ADCs approved in HR-positive breast cancer: another TROP2 ADC sacituzumab [govitecan] and a HER2 ADC trastuzumab deruxtecan. Would I rather give Dato over one of these? I don’t have an answer,” he added.

In addition, it’s unknown whether these drugs, which have the same topoisomerase-targeted payload, could be given in sequence, and there are as yet no clear answers as to whether patients might do better with Dato-DXd or with a PIK3ca inhibitor.

“I would say that the elephant in the room is really another question, and that is, ‘Is Dato-DXd in this context delivering on the promise of an ADC?’ ” Dr. Chandarlapaty said.

“I think translational research is urgently needed if we’re ultimately to deliver on the promise of these agents in the clinic,” he concluded.

The TROPION-Breast01 study is sponsored AstraZeneca, which is collaborating with Daiichi-Sankyo on global development and commercialization of Dato-DXd. Dr. Bardia disclosed advisory board activities and institutional research funding from AstraZeneca and Daiichi-Sankyo and others. Dr. Chandarlapaty disclosed research funding from both companies, and advisory board activities for AstraZeneca and others.

MADRID – “Why did I choose this?”

That is the core question a Portuguese oncologist posed from the audience during a session at the annual meeting of the European Society for Medical Oncology (ESMO) that was dedicated to building a sustainable oncology workforce.

“Ten, twenty years ago, being a doctor was a dream,” she said, but right now doctors are underpaid, under strain, and have very few resources.

This oncologist is hardly alone.

Rates of burnout among oncologists remain alarmingly high, explained session chair Kok Haw Jonathan Lim, MD, PhD.

A survey from ESMO conducted almost a decade ago found that more than 50% of oncologists across Europe, many of whom were early in their careers, reported being burned out.

This, Dr. Lim said, “was the starting point,” well before the COVID pandemic struck.

More recently, the pandemic has taken its own toll on the well-being of oncologists. A survey presented at ESMO 2020 revealed that 38% of participants, spanning 101 countries, reported experiencing burnout, and 66% said they were not able to perform their job.

Medscape’s 2023 Physician Burnout and Depression Report highlighted similar burnout rates, with 53% of U.S. physicians and 52% of oncologists saying they felt burned out, compared with about 42% in 2018, before the pandemic.

The oncology workforce is in crisis in every country, said Dr. Lim, from the Cancer Dynamics Lab, the Francis Crick Institute, London.

Burnout, characterized by emotional exhaustion, depersonalization or feelings of cynicism, and a low sense of personal accomplishment, can result in a poor work-life balance as well as poor mental and physical health. Factors linked to burnout include social isolation, increased workload, reduced quality of work, lack of control over work, and stressful professional experiences.

Together, these factors can affect patient care and further exacerbate staffing issues, Dr. Lim said.

Staffing shortages are common. Oncologists often work long hours or on weekends to cover gaps caused by staffing shortages. Recent data revealed that in high-income countries, there are on average 0.65 medical oncologists and 0.25 radiation oncologists per 100 patients — a situation made worse by professionals taking early retirement or leaving medicine during the pandemic.

“We have seen that the shortage of human resources in many countries as well as the increasing workload related to the increasing number of cancers,” as well as patients surviving longer, have increased pressures on the healthcare system, Andrés Cervantes, MD, PhD, president of ESMO, explained in a press conference.

While tackling these oncology workforce problems requires smaller, local changes to a physician’s daily routine, “the real change,” Dr. Lim said, lies at an infrastructure level.

In response to this chronic and growing problem, ESMO launched its Resilience Task Force in 2020 to evaluate burnout and well-being. The task force plans to publish a position paper in which it will propose a set of recommendations regarding the psychosocial risks of burnout as well as flexible work patterns, well-being resources, and targeted support.

A panel of experts at the meeting touched on some of these solutions.

Dealing with staff shortages is a must, said Jean-Yves Blay, MD, PhD, during the session. “It’s a simple mathematical equation,” Dr. Blay said. “We must increase the number of doctors in medical schools and the number of nurses and healthcare professionals in all schools.” Improving staffing would also help reduce chronic workload issues.

Resilience training should also be incorporated into physician training starting in medical school. Teaching oncologists how to deal with bad news and to cope when patients dies is particularly important.

“I was not taught that,” said the oncologist from Portugal. “I had to learn that at my own cost.”

The good news is that it’s possible to develop resiliency skills over time, said Claire Hardy, PhD, from Lancaster University, United Kingdom, who agreed that training programs could be one approach to improve oncologists’ work life.

However, a person’s needs are determined by their institution and personal responsibilities. “No one knows your job better than you,” Dr. Hardy said. “No one knows better than you where the inefficiencies are, where the bureaucracy is that could be taken away, or it could be done by somebody whose role it is to sort all that out.”

But having this understanding is not enough. Physician also need to feel “psychological safety to be able to speak out and say that something isn’t working right now or is too much,” or, “I’m spending too much time doing this.”

In other words, oncologists need to be able to set boundaries and say no.

Dr. Hardy said this concept “has been around a while, but it’s really gaining momentum,” and being able to discuss these issues in a forum such as the ESMO Congress is a promising start.

Dr. Lim has relationships with Janseen and SEOM. No other relevant financial relationships were disclosed.

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

MADRID – “Why did I choose this?”

That is the core question a Portuguese oncologist posed from the audience during a session at the annual meeting of the European Society for Medical Oncology (ESMO) that was dedicated to building a sustainable oncology workforce.

“Ten, twenty years ago, being a doctor was a dream,” she said, but right now doctors are underpaid, under strain, and have very few resources.

This oncologist is hardly alone.

Rates of burnout among oncologists remain alarmingly high, explained session chair Kok Haw Jonathan Lim, MD, PhD.

A survey from ESMO conducted almost a decade ago found that more than 50% of oncologists across Europe, many of whom were early in their careers, reported being burned out.

This, Dr. Lim said, “was the starting point,” well before the COVID pandemic struck.

More recently, the pandemic has taken its own toll on the well-being of oncologists. A survey presented at ESMO 2020 revealed that 38% of participants, spanning 101 countries, reported experiencing burnout, and 66% said they were not able to perform their job.

Medscape’s 2023 Physician Burnout and Depression Report highlighted similar burnout rates, with 53% of U.S. physicians and 52% of oncologists saying they felt burned out, compared with about 42% in 2018, before the pandemic.

The oncology workforce is in crisis in every country, said Dr. Lim, from the Cancer Dynamics Lab, the Francis Crick Institute, London.

Burnout, characterized by emotional exhaustion, depersonalization or feelings of cynicism, and a low sense of personal accomplishment, can result in a poor work-life balance as well as poor mental and physical health. Factors linked to burnout include social isolation, increased workload, reduced quality of work, lack of control over work, and stressful professional experiences.

Together, these factors can affect patient care and further exacerbate staffing issues, Dr. Lim said.

Staffing shortages are common. Oncologists often work long hours or on weekends to cover gaps caused by staffing shortages. Recent data revealed that in high-income countries, there are on average 0.65 medical oncologists and 0.25 radiation oncologists per 100 patients — a situation made worse by professionals taking early retirement or leaving medicine during the pandemic.

“We have seen that the shortage of human resources in many countries as well as the increasing workload related to the increasing number of cancers,” as well as patients surviving longer, have increased pressures on the healthcare system, Andrés Cervantes, MD, PhD, president of ESMO, explained in a press conference.

While tackling these oncology workforce problems requires smaller, local changes to a physician’s daily routine, “the real change,” Dr. Lim said, lies at an infrastructure level.

In response to this chronic and growing problem, ESMO launched its Resilience Task Force in 2020 to evaluate burnout and well-being. The task force plans to publish a position paper in which it will propose a set of recommendations regarding the psychosocial risks of burnout as well as flexible work patterns, well-being resources, and targeted support.

A panel of experts at the meeting touched on some of these solutions.

Dealing with staff shortages is a must, said Jean-Yves Blay, MD, PhD, during the session. “It’s a simple mathematical equation,” Dr. Blay said. “We must increase the number of doctors in medical schools and the number of nurses and healthcare professionals in all schools.” Improving staffing would also help reduce chronic workload issues.

Resilience training should also be incorporated into physician training starting in medical school. Teaching oncologists how to deal with bad news and to cope when patients dies is particularly important.

“I was not taught that,” said the oncologist from Portugal. “I had to learn that at my own cost.”

The good news is that it’s possible to develop resiliency skills over time, said Claire Hardy, PhD, from Lancaster University, United Kingdom, who agreed that training programs could be one approach to improve oncologists’ work life.

However, a person’s needs are determined by their institution and personal responsibilities. “No one knows your job better than you,” Dr. Hardy said. “No one knows better than you where the inefficiencies are, where the bureaucracy is that could be taken away, or it could be done by somebody whose role it is to sort all that out.”

But having this understanding is not enough. Physician also need to feel “psychological safety to be able to speak out and say that something isn’t working right now or is too much,” or, “I’m spending too much time doing this.”

In other words, oncologists need to be able to set boundaries and say no.

Dr. Hardy said this concept “has been around a while, but it’s really gaining momentum,” and being able to discuss these issues in a forum such as the ESMO Congress is a promising start.

Dr. Lim has relationships with Janseen and SEOM. No other relevant financial relationships were disclosed.

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

MADRID – “Why did I choose this?”

That is the core question a Portuguese oncologist posed from the audience during a session at the annual meeting of the European Society for Medical Oncology (ESMO) that was dedicated to building a sustainable oncology workforce.

“Ten, twenty years ago, being a doctor was a dream,” she said, but right now doctors are underpaid, under strain, and have very few resources.

This oncologist is hardly alone.

Rates of burnout among oncologists remain alarmingly high, explained session chair Kok Haw Jonathan Lim, MD, PhD.

A survey from ESMO conducted almost a decade ago found that more than 50% of oncologists across Europe, many of whom were early in their careers, reported being burned out.

This, Dr. Lim said, “was the starting point,” well before the COVID pandemic struck.

More recently, the pandemic has taken its own toll on the well-being of oncologists. A survey presented at ESMO 2020 revealed that 38% of participants, spanning 101 countries, reported experiencing burnout, and 66% said they were not able to perform their job.

Medscape’s 2023 Physician Burnout and Depression Report highlighted similar burnout rates, with 53% of U.S. physicians and 52% of oncologists saying they felt burned out, compared with about 42% in 2018, before the pandemic.

The oncology workforce is in crisis in every country, said Dr. Lim, from the Cancer Dynamics Lab, the Francis Crick Institute, London.

Burnout, characterized by emotional exhaustion, depersonalization or feelings of cynicism, and a low sense of personal accomplishment, can result in a poor work-life balance as well as poor mental and physical health. Factors linked to burnout include social isolation, increased workload, reduced quality of work, lack of control over work, and stressful professional experiences.

Together, these factors can affect patient care and further exacerbate staffing issues, Dr. Lim said.

Staffing shortages are common. Oncologists often work long hours or on weekends to cover gaps caused by staffing shortages. Recent data revealed that in high-income countries, there are on average 0.65 medical oncologists and 0.25 radiation oncologists per 100 patients — a situation made worse by professionals taking early retirement or leaving medicine during the pandemic.

“We have seen that the shortage of human resources in many countries as well as the increasing workload related to the increasing number of cancers,” as well as patients surviving longer, have increased pressures on the healthcare system, Andrés Cervantes, MD, PhD, president of ESMO, explained in a press conference.

While tackling these oncology workforce problems requires smaller, local changes to a physician’s daily routine, “the real change,” Dr. Lim said, lies at an infrastructure level.

In response to this chronic and growing problem, ESMO launched its Resilience Task Force in 2020 to evaluate burnout and well-being. The task force plans to publish a position paper in which it will propose a set of recommendations regarding the psychosocial risks of burnout as well as flexible work patterns, well-being resources, and targeted support.

A panel of experts at the meeting touched on some of these solutions.

Dealing with staff shortages is a must, said Jean-Yves Blay, MD, PhD, during the session. “It’s a simple mathematical equation,” Dr. Blay said. “We must increase the number of doctors in medical schools and the number of nurses and healthcare professionals in all schools.” Improving staffing would also help reduce chronic workload issues.

Resilience training should also be incorporated into physician training starting in medical school. Teaching oncologists how to deal with bad news and to cope when patients dies is particularly important.

“I was not taught that,” said the oncologist from Portugal. “I had to learn that at my own cost.”

The good news is that it’s possible to develop resiliency skills over time, said Claire Hardy, PhD, from Lancaster University, United Kingdom, who agreed that training programs could be one approach to improve oncologists’ work life.

However, a person’s needs are determined by their institution and personal responsibilities. “No one knows your job better than you,” Dr. Hardy said. “No one knows better than you where the inefficiencies are, where the bureaucracy is that could be taken away, or it could be done by somebody whose role it is to sort all that out.”

But having this understanding is not enough. Physician also need to feel “psychological safety to be able to speak out and say that something isn’t working right now or is too much,” or, “I’m spending too much time doing this.”

In other words, oncologists need to be able to set boundaries and say no.

Dr. Hardy said this concept “has been around a while, but it’s really gaining momentum,” and being able to discuss these issues in a forum such as the ESMO Congress is a promising start.

Dr. Lim has relationships with Janseen and SEOM. No other relevant financial relationships were disclosed.

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

The U.S. Food and Drug Administration has approved tablets of ivosidenib (Tibsovo, Servier Pharmaceuticals) for adults with isocitrate dehydrogenase (IDH)-1 mutated relapsed or refractory myelodysplastic syndromes.

The agency also approved the Abbott RealTime IDH1 Assay to test for the mutation.

Almost 4% of the 16,000 people diagnosed with MDS in the United States each year carry an isocitrate dehydrogenase-1 (IDH1) mutation, which increases their risk for poor outcomes, such as transformation to acute myeloid leukemia, Servier explained in a press announcement.

Ivosidenib is an IDH1 inhibitor that has previously been approved for IDH1-mutated AML and locally advanced or metastatic cholangiocarcinoma. The new approval makes it the only targeted therapy approved for relapsed or refractory MDS with the mutation, Servier said.

The FDA approval was based on a phase 1 study in 18 adults aged 61-82 years with IDH1-mutated relapsed or refractory MDS. Patients started at a dose of 500 mg daily in 28-day cycles until disease progression, unacceptable toxicity, or hematopoietic stem cell transplantation. Median treatment duration was 9.3 months, and one patient went on to receive a transplant.

Overall survival was a median of 35.7 months. Fifteen patients (83.3%) had an objective response and 7 (38.9%) went into complete remission after a median of 1.9 months of treatment. The median duration of remission had not been reached at data cutoff.

Among the 9 patients dependent on RBC or platelet transfusions at baseline, 6 (66.7%) no longer needed them during any 56-day post-baseline period.

Grade 3/4 adverse events in 5% or more of patients included arthralgia, hypertension, fatigue, mucositis, and leukocytosis.

Labeling carries a boxed warning of potentially fatal differentiation syndrome. Ivosidenib can also cause QTc prolongation.

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

The U.S. Food and Drug Administration has approved tablets of ivosidenib (Tibsovo, Servier Pharmaceuticals) for adults with isocitrate dehydrogenase (IDH)-1 mutated relapsed or refractory myelodysplastic syndromes.

The agency also approved the Abbott RealTime IDH1 Assay to test for the mutation.

Almost 4% of the 16,000 people diagnosed with MDS in the United States each year carry an isocitrate dehydrogenase-1 (IDH1) mutation, which increases their risk for poor outcomes, such as transformation to acute myeloid leukemia, Servier explained in a press announcement.

Ivosidenib is an IDH1 inhibitor that has previously been approved for IDH1-mutated AML and locally advanced or metastatic cholangiocarcinoma. The new approval makes it the only targeted therapy approved for relapsed or refractory MDS with the mutation, Servier said.

The FDA approval was based on a phase 1 study in 18 adults aged 61-82 years with IDH1-mutated relapsed or refractory MDS. Patients started at a dose of 500 mg daily in 28-day cycles until disease progression, unacceptable toxicity, or hematopoietic stem cell transplantation. Median treatment duration was 9.3 months, and one patient went on to receive a transplant.

Overall survival was a median of 35.7 months. Fifteen patients (83.3%) had an objective response and 7 (38.9%) went into complete remission after a median of 1.9 months of treatment. The median duration of remission had not been reached at data cutoff.

Among the 9 patients dependent on RBC or platelet transfusions at baseline, 6 (66.7%) no longer needed them during any 56-day post-baseline period.

Grade 3/4 adverse events in 5% or more of patients included arthralgia, hypertension, fatigue, mucositis, and leukocytosis.

Labeling carries a boxed warning of potentially fatal differentiation syndrome. Ivosidenib can also cause QTc prolongation.

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

The U.S. Food and Drug Administration has approved tablets of ivosidenib (Tibsovo, Servier Pharmaceuticals) for adults with isocitrate dehydrogenase (IDH)-1 mutated relapsed or refractory myelodysplastic syndromes.

The agency also approved the Abbott RealTime IDH1 Assay to test for the mutation.

Almost 4% of the 16,000 people diagnosed with MDS in the United States each year carry an isocitrate dehydrogenase-1 (IDH1) mutation, which increases their risk for poor outcomes, such as transformation to acute myeloid leukemia, Servier explained in a press announcement.

Ivosidenib is an IDH1 inhibitor that has previously been approved for IDH1-mutated AML and locally advanced or metastatic cholangiocarcinoma. The new approval makes it the only targeted therapy approved for relapsed or refractory MDS with the mutation, Servier said.

The FDA approval was based on a phase 1 study in 18 adults aged 61-82 years with IDH1-mutated relapsed or refractory MDS. Patients started at a dose of 500 mg daily in 28-day cycles until disease progression, unacceptable toxicity, or hematopoietic stem cell transplantation. Median treatment duration was 9.3 months, and one patient went on to receive a transplant.

Overall survival was a median of 35.7 months. Fifteen patients (83.3%) had an objective response and 7 (38.9%) went into complete remission after a median of 1.9 months of treatment. The median duration of remission had not been reached at data cutoff.

Among the 9 patients dependent on RBC or platelet transfusions at baseline, 6 (66.7%) no longer needed them during any 56-day post-baseline period.

Grade 3/4 adverse events in 5% or more of patients included arthralgia, hypertension, fatigue, mucositis, and leukocytosis.

Labeling carries a boxed warning of potentially fatal differentiation syndrome. Ivosidenib can also cause QTc prolongation.

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