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Cellular Therapies for Solid Tumors: The Next Big Thing?
The cutting edge of treating solid tumors with cell therapies got notably sharper in 2024.
First came the US Food and Drug Administration (FDA) approval in February 2024 of the tumor-infiltrating lymphocyte (TIL) therapy lifileucel in unresectable or metastatic melanoma that had progressed on prior immunotherapy, the first cellular therapy for any solid tumor. Then came the August FDA approval of afamitresgene autoleucel in unresectable or metastatic synovial sarcoma with failed chemotherapy, the first engineered T-cell therapy for cancers in soft tissue.
“This was a pipe dream just a decade ago,” Alison Betof Warner, MD, PhD, lead author of a lifileucel study (NCT05640193), said in an interview with Medscape Medical News. “At the start of 2024, we had no approvals of these kinds of products in solid cancers. Now we have two.”
As the director of Solid Tumor Cell Therapy and leader of Stanford Medicine’s Melanoma and Cutaneous Oncology Clinical Research Group, Betof Warner has been at the forefront of developing commercial cell therapy using tumor-infiltrating lymphocytes (TILs).
“The approval of lifileucel increases confidence that we can get these therapies across the regulatory finish line and to patients,” Betof Warner said during the interview. She was not involved in the development of afamitresgene autoleucel.
‘Reverse Engineering’
In addition to her contributions to the work that led to lifileucel’s approval, Betof Warner was the lead author on the first consensus guidelines on management and best practices for tumor-infiltrating lymphocyte cell therapy.
Betof Warner began studying TILs after doing research with her mentors in immuno-oncology, Jedd D. Wolchok and Michael A. Postow. Their investigations — including one that Betof Warner coauthored — into how monoclonal antibodies and checkpoint inhibitors, such as ipilimumab or nivolumab, might extend the lives of people with advanced unresectable or metastatic melanoma inspired her to push further to find ways to minimize treatment while maximizing outcomes for patients. Betof Warner’s interest overall, she said in the interview, is in capitalizing on what can be learned about how the immune system controls cancer.
“What we know is that the immune system has the ability to kill cancer,” Betof Warner said. “Therefore we need to be thinking about how we can increase immune surveillance. How can we enhance that before a patient develops advanced cancer?
Betof Warner said that although TILs are now standard treatment in melanoma, there is about a 30% response rate compared with about a 50% response rate in immunotherapy, and the latter is easier for the patient to withstand.
“Antibodies on the frontline are better than going through a surgery and then waiting weeks to get your therapy,” Betof Warner said in the interview. “You can come into my clinic and get an antibody therapy in 30 minutes and go straight to work. TILs require patients to be in the hospital for weeks at a time and out of work for months at a time.”
In an effort to combine therapies to maximize best outcomes, a phase 3 trial (NCT05727904) is currently recruiting. The TILVANCE-301 trial will compare immunotherapy plus adoptive cell therapy vs immunotherapy alone in untreated unresectable or metastatic melanoma. Betof Warner is not a part of this study.
Cell Therapies Include CAR T Cells and TCRT
In general, adoptive T-cell therapies such as TILs involve the isolation of autologous immune cells that are removed from the body and either expanded or modified to optimize their efficacy in fighting antigens, before their transfer to the patient as a living drug by infusion.
In addition to TILs, adoptive cell therapies for antitumor therapeutics include chimeric antigen receptor (CAR) T cells and engineered T-cell receptor therapy (TCRT).
In CAR T-cell therapy and TCRT, naive T cells are harvested from the patient’s blood then engineered to target a tumor. In TIL therapy, tumor-specific T cells are taken from the patient’s tumor. Once extracted, the respective cells are expanded billions of times and then delivered back to the patient’s body, said Betof Warner.
“The main promise of this approach is to generate responses in what we know as ‘cold’ tumors, or tumors that do not have a lot of endogenous T-cell infiltration or where the T cells are not working well, to bring in tumor targeting T cells and then trigger an immune response,” Betof Warner told an audience at the American Society of Clinical Oncology (ASCO) 2024 annual meeting.
TIL patients also receive interleukin (IL)-2 infusions to further stimulate the cells. In patients being treated with TCRT, they either receive low or no IL-2, Betof Warner said in her ASCO presentation, “Adopting Cutting-Edge Cell Therapies in Melanoma,” part of the session Beyond the Tip of the Iceberg: Next-Generation Cell-Based Therapies.
Decades in the Making
The National Cancer Institute began investigating TILs in the late 1980s, with the current National Cancer Institute (NCI) surgery chief, Steven Rosenberg, MD, PhD, leading the first-ever trials that showed TILs could shrink tumors in people with advanced melanoma.
Since then, NCI staff and others have also investigated TILs beyond melanoma and additional cell therapies based on CAR T cells and TCRT for antitumor therapeutics.
“TCRs are different from CAR Ts because they go after intracellular antigens instead of extracellular antigens,” said Betof Warner. “That has appeal because many of the tumor antigens we’re looking for will be intracellular.”
Because CAR T cells only target extracellular antigens, their utility is somewhat limited. Although several CAR T-cell therapies exist for blood cancers, there currently are no approved CAR T-cell therapies for solid tumors. However, several trials of CAR T cells in gastrointestinal cancers and melanoma are ongoing, said Betof Warner, who is not a part of these studies.
“We are starting to see early-phase efficacy in pediatric gliomas,” Betof Warner said, mentioning a study conducted by colleagues at Stanford who demonstrated potential for anti-GD2 CAR T-cell therapy in deadly pediatric diffuse midline gliomas, tumors on the spine and brain.
In their study, nine out of 11 participants (median age, 15 years) showed benefit from the cell therapy, with one participant’s tumors resolving completely. The results paved the way for the FDA to grant a Regenerative Medicine Advanced Therapy designation for use of anti-GD2 CAR T cells in H3K27M-positive diffuse midline gliomas.
The investigators are now recruiting for a phase 1 trial (NCT04196413). Results of the initial study were published in Nature last month.
Another lesser-known cell therapy expected to advance at some point in the future for solid tumors is use of the body’s natural killer (NK) cells. “They’ve been known about for a long time, but they are more difficult to regulate, which is one reason why it has taken longer to make NK cell therapies,” said Betof Warner, who is not involved in the study of NK cells. “One of their advantages is that, potentially, there could be an ‘off the shelf’ NK product. They don’t necessarily have to be made with autologous cells.”
Risk-Benefit Profiles Depend on Mechanism of Action
If the corresponding TCR sequence of a tumor antigen is known, said Betof Warner, it is possible to use leukapheresis to generate naive circulating lymphocytes. Once infused, the manufactured TCRTs will activate in the body the same as native cells because the signaling is the same.
An advantage to TCRT compared with CAR T-cell therapy is that it targets intracellular proteins, which are significantly present in the tumor, Betof Warner said in her presentation at ASCO 2024. She clarified that tumors will usually be screened for the presence of this antigen before a patient is selected for treatment with that particular therapy, because not all antigens are highly expressed in every tumor.
“Furthermore, the tumor antigen has to be presented by a major histocompatibility complex, meaning there are human leukocyte antigen restrictions, which impacts patient selection,” she said.
A risk with both TCRT and CAR T-cell therapy, according to Betof Warner, is that because there are often shared antigens between tumor and normal tissues, on-target/off-tumor toxicity is a risk.
“TILs are different because they are nonengineered, at least not for antigen recognition. They are polyclonal and go after multiple targets,” Betof Warner said. “TCRs and CARs are engineered to go after one target. So, TILs have much lower rates of on-tumor/off-target effects, vs when you engineer a very high affinity receptor like a TCR or CAR.”
A good example of how this amplification of TCR affinity can lead to poor outcomes is in metastatic melanoma, said Betof Warner.
In investigations (NCI-07-C-0174 and NCI-07-C-0175) of TCRT in metastatic melanoma, for example, the researchers were targeting MART-1 or gp100, which are expressed in melanocytes.
“The problem was that these antigens are also expressed in the eyes and ears, so it caused eye inflammation and hearing loss in a number of patients because it wasn’t specific enough for the tumor,” said Betof Warner. “So, if that target is highly expressed on normal tissue, then you have a high risk.”
Promise of PRAME
Betof Warner said the most promising TCRT at present is the investigational autologous cell therapy IMA203 (NCT03688124), which targets the preferentially expressed antigen (PRAME). Although PRAME is found in many tumors, this testis antigen does not tend to express in normal, healthy adult tissues. Betof Warner is not affiliated with this study.
“It’s maybe the most exciting TCRT cell in melanoma,” Betof Warner told her audience at the ASCO 2024 meeting. Because the expression rate of PRAME in cutaneous and uveal melanoma is at or above 95% and 90%, respectively, she said “it is a really good target in melanoma.”
Phase 1a results reported in late 2023 from a first-in-human trial of IMA203 involving 13 persons with highly advanced melanoma and a median of 5.5 previous treatments showed a 50% objective response rate in the 12 evaluable results. The duration of response ranged between 2.2 and 14.7 months (median follow-up, 14 months).
The safety profile of the treatment was favorable, with no grade 3 adverse events occurring in more than 10% of the cohort, and no grade 5 adverse events at all.
Phase 1b results published in October by maker Immatics showed that in 28 heavily pretreated metastatic melanoma patients, IMA203 had a confirmed objective response rate of 54% with a median duration of response of 12.1 months, while maintaining a favorable tolerability profile.
Accelerated Approvals, Boxed Warnings
The FDA granted accelerated approvals for both lifileucel, the TIL therapy, and afamitresgene autoleucel, the TCRT.
Both were approved with boxed warnings. Lifileucel’s warning is for treatment-related mortality, prolonged severe cytopenia, severe infection, and cardiopulmonary and renal impairment. Afamitresgene autoleucel’s boxed warning is for serious or fatal cytokine release syndrome, which may be severe or life-threatening.
With these approvals, the bar is now raised on TILs and TCRTs, said Betof Warner.
The lifileucel trial studied 73 patients whose melanoma had continued to metastasize despite treatment with a programmed cell death protein (PD-1)/ programmed death-ligand (PD-L1)–targeted immune checkpoint inhibitor and a BRAF inhibitor (if appropriate based on tumor mutation status), and whose lifileucel dose was at least 7.5 billion cells (the approved dose). The cohort also received a median of six IL-2 (aldesleukin) doses.
The objective response rate was 31.5% (95% CI, 21.1-43.4), and median duration of response was not reached (lower bound of 95% CI, 4.1).
In the afamitresgene autoleucel study, 44 of 52 patients with synovial sarcoma received leukapheresis and a single infusion of afamitresgene autoleucel.
The overall response rate was 43.2% (95% CI, 28.4-59.0). The median time to response was 4.9 weeks (95% CI, 4.4-8), and the median duration of response was 6 months (lower bound of 95% CI, 4.6). Among patients who were responsive to the treatment, 45.6% and 39.0% had a duration of response of 6 months or longer and 12 months or longer, respectively.
New Hope for Patients
Betof Warner and her colleagues are now recruiting for an open-label, phase 1/2 investigation of the safety and efficacy of the TIL therapy OBX-115 in adult advanced solid tumors in melanoma or non–small cell lung cancer. The first-in-human results of a previous trial were presented at the ASCO 2024 meeting, and OBX-115 received FDA fast track designation in July.
“I think the results are really promising,” said Betof Warner. “This is an engineered TIL that does not require administering IL-2 to the patient. There were four out of the nine patients who responded to the treatment and there were no dose-limiting toxicities, no cytokine and no intracranial — all of which is excellent.”
For Betof Warner, the possibility that by using their own immune system, patients with advanced and refractory cancers could soon have a one-time treatment with a cell therapy rather than innumerable bouts of chemotherapy pushes her onward.
“The idea that we can treat cancer one time and have it not recur for years — that’s pushing the start of saying there’s a cure of cancer. That a person could move on from cancer like they move on from an infection. That is the potential of this work. We’re not there yet, but that’s where we need to think and dream big,” she said.
Betof Warner disclosed consulting/advisory roles with BluePath Solutions, Bristol-Myers Squibb/Medarex, Immatics, Instil Bio, Iovance Biotherapeutics, Lyell Immunopharma, Merck, Novartis, and Pfizer and research funding and travel expenses from Iovance Biotherapeutics.
A version of this article appeared on Medscape.com.
The cutting edge of treating solid tumors with cell therapies got notably sharper in 2024.
First came the US Food and Drug Administration (FDA) approval in February 2024 of the tumor-infiltrating lymphocyte (TIL) therapy lifileucel in unresectable or metastatic melanoma that had progressed on prior immunotherapy, the first cellular therapy for any solid tumor. Then came the August FDA approval of afamitresgene autoleucel in unresectable or metastatic synovial sarcoma with failed chemotherapy, the first engineered T-cell therapy for cancers in soft tissue.
“This was a pipe dream just a decade ago,” Alison Betof Warner, MD, PhD, lead author of a lifileucel study (NCT05640193), said in an interview with Medscape Medical News. “At the start of 2024, we had no approvals of these kinds of products in solid cancers. Now we have two.”
As the director of Solid Tumor Cell Therapy and leader of Stanford Medicine’s Melanoma and Cutaneous Oncology Clinical Research Group, Betof Warner has been at the forefront of developing commercial cell therapy using tumor-infiltrating lymphocytes (TILs).
“The approval of lifileucel increases confidence that we can get these therapies across the regulatory finish line and to patients,” Betof Warner said during the interview. She was not involved in the development of afamitresgene autoleucel.
‘Reverse Engineering’
In addition to her contributions to the work that led to lifileucel’s approval, Betof Warner was the lead author on the first consensus guidelines on management and best practices for tumor-infiltrating lymphocyte cell therapy.
Betof Warner began studying TILs after doing research with her mentors in immuno-oncology, Jedd D. Wolchok and Michael A. Postow. Their investigations — including one that Betof Warner coauthored — into how monoclonal antibodies and checkpoint inhibitors, such as ipilimumab or nivolumab, might extend the lives of people with advanced unresectable or metastatic melanoma inspired her to push further to find ways to minimize treatment while maximizing outcomes for patients. Betof Warner’s interest overall, she said in the interview, is in capitalizing on what can be learned about how the immune system controls cancer.
“What we know is that the immune system has the ability to kill cancer,” Betof Warner said. “Therefore we need to be thinking about how we can increase immune surveillance. How can we enhance that before a patient develops advanced cancer?
Betof Warner said that although TILs are now standard treatment in melanoma, there is about a 30% response rate compared with about a 50% response rate in immunotherapy, and the latter is easier for the patient to withstand.
“Antibodies on the frontline are better than going through a surgery and then waiting weeks to get your therapy,” Betof Warner said in the interview. “You can come into my clinic and get an antibody therapy in 30 minutes and go straight to work. TILs require patients to be in the hospital for weeks at a time and out of work for months at a time.”
In an effort to combine therapies to maximize best outcomes, a phase 3 trial (NCT05727904) is currently recruiting. The TILVANCE-301 trial will compare immunotherapy plus adoptive cell therapy vs immunotherapy alone in untreated unresectable or metastatic melanoma. Betof Warner is not a part of this study.
Cell Therapies Include CAR T Cells and TCRT
In general, adoptive T-cell therapies such as TILs involve the isolation of autologous immune cells that are removed from the body and either expanded or modified to optimize their efficacy in fighting antigens, before their transfer to the patient as a living drug by infusion.
In addition to TILs, adoptive cell therapies for antitumor therapeutics include chimeric antigen receptor (CAR) T cells and engineered T-cell receptor therapy (TCRT).
In CAR T-cell therapy and TCRT, naive T cells are harvested from the patient’s blood then engineered to target a tumor. In TIL therapy, tumor-specific T cells are taken from the patient’s tumor. Once extracted, the respective cells are expanded billions of times and then delivered back to the patient’s body, said Betof Warner.
“The main promise of this approach is to generate responses in what we know as ‘cold’ tumors, or tumors that do not have a lot of endogenous T-cell infiltration or where the T cells are not working well, to bring in tumor targeting T cells and then trigger an immune response,” Betof Warner told an audience at the American Society of Clinical Oncology (ASCO) 2024 annual meeting.
TIL patients also receive interleukin (IL)-2 infusions to further stimulate the cells. In patients being treated with TCRT, they either receive low or no IL-2, Betof Warner said in her ASCO presentation, “Adopting Cutting-Edge Cell Therapies in Melanoma,” part of the session Beyond the Tip of the Iceberg: Next-Generation Cell-Based Therapies.
Decades in the Making
The National Cancer Institute began investigating TILs in the late 1980s, with the current National Cancer Institute (NCI) surgery chief, Steven Rosenberg, MD, PhD, leading the first-ever trials that showed TILs could shrink tumors in people with advanced melanoma.
Since then, NCI staff and others have also investigated TILs beyond melanoma and additional cell therapies based on CAR T cells and TCRT for antitumor therapeutics.
“TCRs are different from CAR Ts because they go after intracellular antigens instead of extracellular antigens,” said Betof Warner. “That has appeal because many of the tumor antigens we’re looking for will be intracellular.”
Because CAR T cells only target extracellular antigens, their utility is somewhat limited. Although several CAR T-cell therapies exist for blood cancers, there currently are no approved CAR T-cell therapies for solid tumors. However, several trials of CAR T cells in gastrointestinal cancers and melanoma are ongoing, said Betof Warner, who is not a part of these studies.
“We are starting to see early-phase efficacy in pediatric gliomas,” Betof Warner said, mentioning a study conducted by colleagues at Stanford who demonstrated potential for anti-GD2 CAR T-cell therapy in deadly pediatric diffuse midline gliomas, tumors on the spine and brain.
In their study, nine out of 11 participants (median age, 15 years) showed benefit from the cell therapy, with one participant’s tumors resolving completely. The results paved the way for the FDA to grant a Regenerative Medicine Advanced Therapy designation for use of anti-GD2 CAR T cells in H3K27M-positive diffuse midline gliomas.
The investigators are now recruiting for a phase 1 trial (NCT04196413). Results of the initial study were published in Nature last month.
Another lesser-known cell therapy expected to advance at some point in the future for solid tumors is use of the body’s natural killer (NK) cells. “They’ve been known about for a long time, but they are more difficult to regulate, which is one reason why it has taken longer to make NK cell therapies,” said Betof Warner, who is not involved in the study of NK cells. “One of their advantages is that, potentially, there could be an ‘off the shelf’ NK product. They don’t necessarily have to be made with autologous cells.”
Risk-Benefit Profiles Depend on Mechanism of Action
If the corresponding TCR sequence of a tumor antigen is known, said Betof Warner, it is possible to use leukapheresis to generate naive circulating lymphocytes. Once infused, the manufactured TCRTs will activate in the body the same as native cells because the signaling is the same.
An advantage to TCRT compared with CAR T-cell therapy is that it targets intracellular proteins, which are significantly present in the tumor, Betof Warner said in her presentation at ASCO 2024. She clarified that tumors will usually be screened for the presence of this antigen before a patient is selected for treatment with that particular therapy, because not all antigens are highly expressed in every tumor.
“Furthermore, the tumor antigen has to be presented by a major histocompatibility complex, meaning there are human leukocyte antigen restrictions, which impacts patient selection,” she said.
A risk with both TCRT and CAR T-cell therapy, according to Betof Warner, is that because there are often shared antigens between tumor and normal tissues, on-target/off-tumor toxicity is a risk.
“TILs are different because they are nonengineered, at least not for antigen recognition. They are polyclonal and go after multiple targets,” Betof Warner said. “TCRs and CARs are engineered to go after one target. So, TILs have much lower rates of on-tumor/off-target effects, vs when you engineer a very high affinity receptor like a TCR or CAR.”
A good example of how this amplification of TCR affinity can lead to poor outcomes is in metastatic melanoma, said Betof Warner.
In investigations (NCI-07-C-0174 and NCI-07-C-0175) of TCRT in metastatic melanoma, for example, the researchers were targeting MART-1 or gp100, which are expressed in melanocytes.
“The problem was that these antigens are also expressed in the eyes and ears, so it caused eye inflammation and hearing loss in a number of patients because it wasn’t specific enough for the tumor,” said Betof Warner. “So, if that target is highly expressed on normal tissue, then you have a high risk.”
Promise of PRAME
Betof Warner said the most promising TCRT at present is the investigational autologous cell therapy IMA203 (NCT03688124), which targets the preferentially expressed antigen (PRAME). Although PRAME is found in many tumors, this testis antigen does not tend to express in normal, healthy adult tissues. Betof Warner is not affiliated with this study.
“It’s maybe the most exciting TCRT cell in melanoma,” Betof Warner told her audience at the ASCO 2024 meeting. Because the expression rate of PRAME in cutaneous and uveal melanoma is at or above 95% and 90%, respectively, she said “it is a really good target in melanoma.”
Phase 1a results reported in late 2023 from a first-in-human trial of IMA203 involving 13 persons with highly advanced melanoma and a median of 5.5 previous treatments showed a 50% objective response rate in the 12 evaluable results. The duration of response ranged between 2.2 and 14.7 months (median follow-up, 14 months).
The safety profile of the treatment was favorable, with no grade 3 adverse events occurring in more than 10% of the cohort, and no grade 5 adverse events at all.
Phase 1b results published in October by maker Immatics showed that in 28 heavily pretreated metastatic melanoma patients, IMA203 had a confirmed objective response rate of 54% with a median duration of response of 12.1 months, while maintaining a favorable tolerability profile.
Accelerated Approvals, Boxed Warnings
The FDA granted accelerated approvals for both lifileucel, the TIL therapy, and afamitresgene autoleucel, the TCRT.
Both were approved with boxed warnings. Lifileucel’s warning is for treatment-related mortality, prolonged severe cytopenia, severe infection, and cardiopulmonary and renal impairment. Afamitresgene autoleucel’s boxed warning is for serious or fatal cytokine release syndrome, which may be severe or life-threatening.
With these approvals, the bar is now raised on TILs and TCRTs, said Betof Warner.
The lifileucel trial studied 73 patients whose melanoma had continued to metastasize despite treatment with a programmed cell death protein (PD-1)/ programmed death-ligand (PD-L1)–targeted immune checkpoint inhibitor and a BRAF inhibitor (if appropriate based on tumor mutation status), and whose lifileucel dose was at least 7.5 billion cells (the approved dose). The cohort also received a median of six IL-2 (aldesleukin) doses.
The objective response rate was 31.5% (95% CI, 21.1-43.4), and median duration of response was not reached (lower bound of 95% CI, 4.1).
In the afamitresgene autoleucel study, 44 of 52 patients with synovial sarcoma received leukapheresis and a single infusion of afamitresgene autoleucel.
The overall response rate was 43.2% (95% CI, 28.4-59.0). The median time to response was 4.9 weeks (95% CI, 4.4-8), and the median duration of response was 6 months (lower bound of 95% CI, 4.6). Among patients who were responsive to the treatment, 45.6% and 39.0% had a duration of response of 6 months or longer and 12 months or longer, respectively.
New Hope for Patients
Betof Warner and her colleagues are now recruiting for an open-label, phase 1/2 investigation of the safety and efficacy of the TIL therapy OBX-115 in adult advanced solid tumors in melanoma or non–small cell lung cancer. The first-in-human results of a previous trial were presented at the ASCO 2024 meeting, and OBX-115 received FDA fast track designation in July.
“I think the results are really promising,” said Betof Warner. “This is an engineered TIL that does not require administering IL-2 to the patient. There were four out of the nine patients who responded to the treatment and there were no dose-limiting toxicities, no cytokine and no intracranial — all of which is excellent.”
For Betof Warner, the possibility that by using their own immune system, patients with advanced and refractory cancers could soon have a one-time treatment with a cell therapy rather than innumerable bouts of chemotherapy pushes her onward.
“The idea that we can treat cancer one time and have it not recur for years — that’s pushing the start of saying there’s a cure of cancer. That a person could move on from cancer like they move on from an infection. That is the potential of this work. We’re not there yet, but that’s where we need to think and dream big,” she said.
Betof Warner disclosed consulting/advisory roles with BluePath Solutions, Bristol-Myers Squibb/Medarex, Immatics, Instil Bio, Iovance Biotherapeutics, Lyell Immunopharma, Merck, Novartis, and Pfizer and research funding and travel expenses from Iovance Biotherapeutics.
A version of this article appeared on Medscape.com.
The cutting edge of treating solid tumors with cell therapies got notably sharper in 2024.
First came the US Food and Drug Administration (FDA) approval in February 2024 of the tumor-infiltrating lymphocyte (TIL) therapy lifileucel in unresectable or metastatic melanoma that had progressed on prior immunotherapy, the first cellular therapy for any solid tumor. Then came the August FDA approval of afamitresgene autoleucel in unresectable or metastatic synovial sarcoma with failed chemotherapy, the first engineered T-cell therapy for cancers in soft tissue.
“This was a pipe dream just a decade ago,” Alison Betof Warner, MD, PhD, lead author of a lifileucel study (NCT05640193), said in an interview with Medscape Medical News. “At the start of 2024, we had no approvals of these kinds of products in solid cancers. Now we have two.”
As the director of Solid Tumor Cell Therapy and leader of Stanford Medicine’s Melanoma and Cutaneous Oncology Clinical Research Group, Betof Warner has been at the forefront of developing commercial cell therapy using tumor-infiltrating lymphocytes (TILs).
“The approval of lifileucel increases confidence that we can get these therapies across the regulatory finish line and to patients,” Betof Warner said during the interview. She was not involved in the development of afamitresgene autoleucel.
‘Reverse Engineering’
In addition to her contributions to the work that led to lifileucel’s approval, Betof Warner was the lead author on the first consensus guidelines on management and best practices for tumor-infiltrating lymphocyte cell therapy.
Betof Warner began studying TILs after doing research with her mentors in immuno-oncology, Jedd D. Wolchok and Michael A. Postow. Their investigations — including one that Betof Warner coauthored — into how monoclonal antibodies and checkpoint inhibitors, such as ipilimumab or nivolumab, might extend the lives of people with advanced unresectable or metastatic melanoma inspired her to push further to find ways to minimize treatment while maximizing outcomes for patients. Betof Warner’s interest overall, she said in the interview, is in capitalizing on what can be learned about how the immune system controls cancer.
“What we know is that the immune system has the ability to kill cancer,” Betof Warner said. “Therefore we need to be thinking about how we can increase immune surveillance. How can we enhance that before a patient develops advanced cancer?
Betof Warner said that although TILs are now standard treatment in melanoma, there is about a 30% response rate compared with about a 50% response rate in immunotherapy, and the latter is easier for the patient to withstand.
“Antibodies on the frontline are better than going through a surgery and then waiting weeks to get your therapy,” Betof Warner said in the interview. “You can come into my clinic and get an antibody therapy in 30 minutes and go straight to work. TILs require patients to be in the hospital for weeks at a time and out of work for months at a time.”
In an effort to combine therapies to maximize best outcomes, a phase 3 trial (NCT05727904) is currently recruiting. The TILVANCE-301 trial will compare immunotherapy plus adoptive cell therapy vs immunotherapy alone in untreated unresectable or metastatic melanoma. Betof Warner is not a part of this study.
Cell Therapies Include CAR T Cells and TCRT
In general, adoptive T-cell therapies such as TILs involve the isolation of autologous immune cells that are removed from the body and either expanded or modified to optimize their efficacy in fighting antigens, before their transfer to the patient as a living drug by infusion.
In addition to TILs, adoptive cell therapies for antitumor therapeutics include chimeric antigen receptor (CAR) T cells and engineered T-cell receptor therapy (TCRT).
In CAR T-cell therapy and TCRT, naive T cells are harvested from the patient’s blood then engineered to target a tumor. In TIL therapy, tumor-specific T cells are taken from the patient’s tumor. Once extracted, the respective cells are expanded billions of times and then delivered back to the patient’s body, said Betof Warner.
“The main promise of this approach is to generate responses in what we know as ‘cold’ tumors, or tumors that do not have a lot of endogenous T-cell infiltration or where the T cells are not working well, to bring in tumor targeting T cells and then trigger an immune response,” Betof Warner told an audience at the American Society of Clinical Oncology (ASCO) 2024 annual meeting.
TIL patients also receive interleukin (IL)-2 infusions to further stimulate the cells. In patients being treated with TCRT, they either receive low or no IL-2, Betof Warner said in her ASCO presentation, “Adopting Cutting-Edge Cell Therapies in Melanoma,” part of the session Beyond the Tip of the Iceberg: Next-Generation Cell-Based Therapies.
Decades in the Making
The National Cancer Institute began investigating TILs in the late 1980s, with the current National Cancer Institute (NCI) surgery chief, Steven Rosenberg, MD, PhD, leading the first-ever trials that showed TILs could shrink tumors in people with advanced melanoma.
Since then, NCI staff and others have also investigated TILs beyond melanoma and additional cell therapies based on CAR T cells and TCRT for antitumor therapeutics.
“TCRs are different from CAR Ts because they go after intracellular antigens instead of extracellular antigens,” said Betof Warner. “That has appeal because many of the tumor antigens we’re looking for will be intracellular.”
Because CAR T cells only target extracellular antigens, their utility is somewhat limited. Although several CAR T-cell therapies exist for blood cancers, there currently are no approved CAR T-cell therapies for solid tumors. However, several trials of CAR T cells in gastrointestinal cancers and melanoma are ongoing, said Betof Warner, who is not a part of these studies.
“We are starting to see early-phase efficacy in pediatric gliomas,” Betof Warner said, mentioning a study conducted by colleagues at Stanford who demonstrated potential for anti-GD2 CAR T-cell therapy in deadly pediatric diffuse midline gliomas, tumors on the spine and brain.
In their study, nine out of 11 participants (median age, 15 years) showed benefit from the cell therapy, with one participant’s tumors resolving completely. The results paved the way for the FDA to grant a Regenerative Medicine Advanced Therapy designation for use of anti-GD2 CAR T cells in H3K27M-positive diffuse midline gliomas.
The investigators are now recruiting for a phase 1 trial (NCT04196413). Results of the initial study were published in Nature last month.
Another lesser-known cell therapy expected to advance at some point in the future for solid tumors is use of the body’s natural killer (NK) cells. “They’ve been known about for a long time, but they are more difficult to regulate, which is one reason why it has taken longer to make NK cell therapies,” said Betof Warner, who is not involved in the study of NK cells. “One of their advantages is that, potentially, there could be an ‘off the shelf’ NK product. They don’t necessarily have to be made with autologous cells.”
Risk-Benefit Profiles Depend on Mechanism of Action
If the corresponding TCR sequence of a tumor antigen is known, said Betof Warner, it is possible to use leukapheresis to generate naive circulating lymphocytes. Once infused, the manufactured TCRTs will activate in the body the same as native cells because the signaling is the same.
An advantage to TCRT compared with CAR T-cell therapy is that it targets intracellular proteins, which are significantly present in the tumor, Betof Warner said in her presentation at ASCO 2024. She clarified that tumors will usually be screened for the presence of this antigen before a patient is selected for treatment with that particular therapy, because not all antigens are highly expressed in every tumor.
“Furthermore, the tumor antigen has to be presented by a major histocompatibility complex, meaning there are human leukocyte antigen restrictions, which impacts patient selection,” she said.
A risk with both TCRT and CAR T-cell therapy, according to Betof Warner, is that because there are often shared antigens between tumor and normal tissues, on-target/off-tumor toxicity is a risk.
“TILs are different because they are nonengineered, at least not for antigen recognition. They are polyclonal and go after multiple targets,” Betof Warner said. “TCRs and CARs are engineered to go after one target. So, TILs have much lower rates of on-tumor/off-target effects, vs when you engineer a very high affinity receptor like a TCR or CAR.”
A good example of how this amplification of TCR affinity can lead to poor outcomes is in metastatic melanoma, said Betof Warner.
In investigations (NCI-07-C-0174 and NCI-07-C-0175) of TCRT in metastatic melanoma, for example, the researchers were targeting MART-1 or gp100, which are expressed in melanocytes.
“The problem was that these antigens are also expressed in the eyes and ears, so it caused eye inflammation and hearing loss in a number of patients because it wasn’t specific enough for the tumor,” said Betof Warner. “So, if that target is highly expressed on normal tissue, then you have a high risk.”
Promise of PRAME
Betof Warner said the most promising TCRT at present is the investigational autologous cell therapy IMA203 (NCT03688124), which targets the preferentially expressed antigen (PRAME). Although PRAME is found in many tumors, this testis antigen does not tend to express in normal, healthy adult tissues. Betof Warner is not affiliated with this study.
“It’s maybe the most exciting TCRT cell in melanoma,” Betof Warner told her audience at the ASCO 2024 meeting. Because the expression rate of PRAME in cutaneous and uveal melanoma is at or above 95% and 90%, respectively, she said “it is a really good target in melanoma.”
Phase 1a results reported in late 2023 from a first-in-human trial of IMA203 involving 13 persons with highly advanced melanoma and a median of 5.5 previous treatments showed a 50% objective response rate in the 12 evaluable results. The duration of response ranged between 2.2 and 14.7 months (median follow-up, 14 months).
The safety profile of the treatment was favorable, with no grade 3 adverse events occurring in more than 10% of the cohort, and no grade 5 adverse events at all.
Phase 1b results published in October by maker Immatics showed that in 28 heavily pretreated metastatic melanoma patients, IMA203 had a confirmed objective response rate of 54% with a median duration of response of 12.1 months, while maintaining a favorable tolerability profile.
Accelerated Approvals, Boxed Warnings
The FDA granted accelerated approvals for both lifileucel, the TIL therapy, and afamitresgene autoleucel, the TCRT.
Both were approved with boxed warnings. Lifileucel’s warning is for treatment-related mortality, prolonged severe cytopenia, severe infection, and cardiopulmonary and renal impairment. Afamitresgene autoleucel’s boxed warning is for serious or fatal cytokine release syndrome, which may be severe or life-threatening.
With these approvals, the bar is now raised on TILs and TCRTs, said Betof Warner.
The lifileucel trial studied 73 patients whose melanoma had continued to metastasize despite treatment with a programmed cell death protein (PD-1)/ programmed death-ligand (PD-L1)–targeted immune checkpoint inhibitor and a BRAF inhibitor (if appropriate based on tumor mutation status), and whose lifileucel dose was at least 7.5 billion cells (the approved dose). The cohort also received a median of six IL-2 (aldesleukin) doses.
The objective response rate was 31.5% (95% CI, 21.1-43.4), and median duration of response was not reached (lower bound of 95% CI, 4.1).
In the afamitresgene autoleucel study, 44 of 52 patients with synovial sarcoma received leukapheresis and a single infusion of afamitresgene autoleucel.
The overall response rate was 43.2% (95% CI, 28.4-59.0). The median time to response was 4.9 weeks (95% CI, 4.4-8), and the median duration of response was 6 months (lower bound of 95% CI, 4.6). Among patients who were responsive to the treatment, 45.6% and 39.0% had a duration of response of 6 months or longer and 12 months or longer, respectively.
New Hope for Patients
Betof Warner and her colleagues are now recruiting for an open-label, phase 1/2 investigation of the safety and efficacy of the TIL therapy OBX-115 in adult advanced solid tumors in melanoma or non–small cell lung cancer. The first-in-human results of a previous trial were presented at the ASCO 2024 meeting, and OBX-115 received FDA fast track designation in July.
“I think the results are really promising,” said Betof Warner. “This is an engineered TIL that does not require administering IL-2 to the patient. There were four out of the nine patients who responded to the treatment and there were no dose-limiting toxicities, no cytokine and no intracranial — all of which is excellent.”
For Betof Warner, the possibility that by using their own immune system, patients with advanced and refractory cancers could soon have a one-time treatment with a cell therapy rather than innumerable bouts of chemotherapy pushes her onward.
“The idea that we can treat cancer one time and have it not recur for years — that’s pushing the start of saying there’s a cure of cancer. That a person could move on from cancer like they move on from an infection. That is the potential of this work. We’re not there yet, but that’s where we need to think and dream big,” she said.
Betof Warner disclosed consulting/advisory roles with BluePath Solutions, Bristol-Myers Squibb/Medarex, Immatics, Instil Bio, Iovance Biotherapeutics, Lyell Immunopharma, Merck, Novartis, and Pfizer and research funding and travel expenses from Iovance Biotherapeutics.
A version of this article appeared on Medscape.com.
Best Practices for Capturing Clinical and Dermoscopic Images With Smartphone Photography
Best Practices for Capturing Clinical and Dermoscopic Images With Smartphone Photography
PRACTICE GAP
Photography is an essential tool in modern dermatologic practice, aiding in the evaluation, documentation, and monitoring of nevi, skin cancers, and other cutaneous pathologies.1 With the rapid technologic advancement of smartphone cameras, high-quality clinical and dermoscopic images have become increasingly easy to attain; however, best practices for optimizing smartphone photography are limited in the medical literature. We have collated a series of recommendations to help fill this knowledge gap.
A search of PubMed articles indexed for MEDLINE was conducted using the terms clinical imaging AND smartphone, clinical photography AND smartphone, dermatology AND photography, dermatology AND imaging, dermoscopy AND photography, and dermoscopy AND imaging. We also consulted with Elizabeth Seiverling, MD (Annville, Pennsylvania) and Jennifer Stein, MD (New York, New York)—both renowned experts in the fields of dermatology, dermoscopy, and medical photography—via email and video meetings conducted during the period from June 1, 2022, through August 20, 2022. Our goal in creating this guide is to facilitate standardized yet simple ways to integrate smartphone photography into current dermatologic practice.
THE TECHNIQUE
Clinical Photography
Clinical images should be captured in a space with ample indirect natural light, such as a patient examination room with frosted or draped windows, ensuring patient privacy is maintained.1,2 The smartphone’s flash can be used if natural lighting is insufficient, but caution should be exercised when photographing patients with darker skin types, as the flash may create an undesired glare. To combat this, consider using a small clip-on light-emitting diode ring light positioned at a 45° angle for more uniform lighting and reduced glare (eFigures 1 and 2).2 This additional light source helps to distribute light evenly across the patient’s skin, enhancing detail visibility, minimizing harsh shadows, and ensuring a more accurate representation of skin pigmentation.2


When a magnified image is required (eg, to capture suspicious lesions with unique and detailed findings such as irregular borders or atypical pigmentation), use the smartphone’s digital zoom function rather than physically moving the camera lens closer to the subject. Moving the camera too close can cause proximity distortion, artificially enlarging objects close to the lens and degrading the quality of the image.1,2 Unnecessary camera features such as portrait mode, live focus, and filters should be turned off to maintain image accuracy. It also is important to avoid excessive manual adjustments to exposure and brightness settings.1,2 The tap-to-focus feature that is integrated into many smartphone cameras can be utilized to ensure the capture of sharp, focused images. After verifying the image preview on the smartphone display, take the photograph. Immediately review the captured image to ensure it is clear and well lit and accurately depicts the area of interest, including its color, texture, and any relevant details, without glare or distortion. If the image does not meet these criteria, promptly reattempt to achieve the desired quality.
Dermoscopic Photography
Dermoscopy, which enables magnified examination of skin lesions, is increasingly being utilized in dermatology. While traditional dermoscopic photography requires specialized equipment, such as large single-lens reflex cameras with dedicated dermoscopic lens attachments, smartphone cameras now can be used to obtain dermoscopic images of reasonable quality.3,4 Adhering to specific practices can help to optimize the quality of dermoscopic images obtained via this technique.
Before capturing an image, it is essential to prepare both the lesion and the surrounding skin. Ensure the area is cleaned thoroughly and trim any hairs that may obscure the image. Apply an interface fluid such as rubbing alcohol or ultrasonography gel to improve image clarity by reducing surface tension and reflections, minimizing glare, and ensuring even light transmission throughout the lesion.5 As recommended for clinical photography, images should be captured in a space with ample indirect light. For best results, we recommend utilizing the primary photo capture option instead of portrait or panoramic mode or additional settings. It is crucial to disable features such as live focus, filters, night mode, and flash, as they may alter image accuracy; however, use of the tap-to-focus feature or manual settings adjustment is encouraged to ensure a high-resolution photograph.
Once these smartphone settings have been verified, position the dermatoscope directly over the lesion of interest. Next, place the smartphone camera lens directly against the eyepiece of the dermatoscope (Figure). Center the lesion in the field of view on the screen. Most smartphones enable adjustment to the image magnification on the photo capture screen. A single tap on the screen should populate the zoom options (eg, ×0.5, ×1, ×3) and allow for adjustment. For the majority of dermoscopic photographs, we recommend standard ×1 magnification, as it typically provides a clear and accurate representation of the lesion without introducing the possibility of image distortion. To obtain a close-up image, use the smartphone’s digital zoom function prior to taking the photograph rather than zooming in on the image after it has been captured; however, to minimize proximity distortion and maintain optimal image quality, avoid exceeding the halfway point on the camera’s zoom dial. After verifying the image preview on the smartphone display, capture the photograph. Immediate review is recommended to allow for prompt reattempt at capturing the image if needed.

PRACTICE IMPLICATIONS
The inherent convenience and accessibility offered by smartphone photography further solidifies its status as a valuable tool in modern dermatologic practice. By adhering to the best practices outlined in this guide, dermatologists can utilize smartphones to capture high-quality clinical and dermoscopic images that support accurate diagnosis and enhance patient care. This approach helps streamline workflows, enhance consistency in image quality, and standardize image capture across different settings and providers.
Additionally, smartphone photography can enhance both education and telemedicine by enabling physicians to easily share high-quality images with colleagues for virtual consultations, second opinions, and collaborative diagnoses. This sharing of images fosters learning opportunities, supports knowledge exchange, and allows for real-time feedback—all of which can improve clinical decision-making. Moreover, it broadens access to dermatologic expertise, strengthens communication between health care providers, and facilitates timely decision-making. As a result, patients benefit from more efficient, accurate, and collaborative care.
- Muraco L. Improved medical photography: key tips for creating images of lasting value. JAMA Dermatol. 2020;156:121-123. doi:10.1001 /jamadermatol.2019.3849
- Alvarado SM, Flessland P, Grant-Kels JM, et al. Practical strategies for improving clinical photography of dark skin. J Am Acad Dermatol. 2022;86:E21-E23. doi:10.1016/j.jaad.2021.09.001
- Pagliarello C, Feliciani C, Fantini C, et al. Use of the dermoscope as a smartphone close-up lens and LED annular macro ring flash. J Am Acad Dermatol. 2016;75:E27–E28. doi:10.1016/j.jaad .2015.12.04
- Zuo KJ, Guo D, Rao J. Mobile teledermatology: a promising future in clinical practice. J Cutan Med Surg. 2013;17:387-391. doi:10.2310/7750.2013.13030
- Gewirtzman AJ, Saurat J-H, Braun RP. An evaluation of dermscopy fluids and application techniques. Br J Dermatol. 2003;149:59-63. doi:10.1046/j.1365-2133.2003.05366.x
PRACTICE GAP
Photography is an essential tool in modern dermatologic practice, aiding in the evaluation, documentation, and monitoring of nevi, skin cancers, and other cutaneous pathologies.1 With the rapid technologic advancement of smartphone cameras, high-quality clinical and dermoscopic images have become increasingly easy to attain; however, best practices for optimizing smartphone photography are limited in the medical literature. We have collated a series of recommendations to help fill this knowledge gap.
A search of PubMed articles indexed for MEDLINE was conducted using the terms clinical imaging AND smartphone, clinical photography AND smartphone, dermatology AND photography, dermatology AND imaging, dermoscopy AND photography, and dermoscopy AND imaging. We also consulted with Elizabeth Seiverling, MD (Annville, Pennsylvania) and Jennifer Stein, MD (New York, New York)—both renowned experts in the fields of dermatology, dermoscopy, and medical photography—via email and video meetings conducted during the period from June 1, 2022, through August 20, 2022. Our goal in creating this guide is to facilitate standardized yet simple ways to integrate smartphone photography into current dermatologic practice.
THE TECHNIQUE
Clinical Photography
Clinical images should be captured in a space with ample indirect natural light, such as a patient examination room with frosted or draped windows, ensuring patient privacy is maintained.1,2 The smartphone’s flash can be used if natural lighting is insufficient, but caution should be exercised when photographing patients with darker skin types, as the flash may create an undesired glare. To combat this, consider using a small clip-on light-emitting diode ring light positioned at a 45° angle for more uniform lighting and reduced glare (eFigures 1 and 2).2 This additional light source helps to distribute light evenly across the patient’s skin, enhancing detail visibility, minimizing harsh shadows, and ensuring a more accurate representation of skin pigmentation.2


When a magnified image is required (eg, to capture suspicious lesions with unique and detailed findings such as irregular borders or atypical pigmentation), use the smartphone’s digital zoom function rather than physically moving the camera lens closer to the subject. Moving the camera too close can cause proximity distortion, artificially enlarging objects close to the lens and degrading the quality of the image.1,2 Unnecessary camera features such as portrait mode, live focus, and filters should be turned off to maintain image accuracy. It also is important to avoid excessive manual adjustments to exposure and brightness settings.1,2 The tap-to-focus feature that is integrated into many smartphone cameras can be utilized to ensure the capture of sharp, focused images. After verifying the image preview on the smartphone display, take the photograph. Immediately review the captured image to ensure it is clear and well lit and accurately depicts the area of interest, including its color, texture, and any relevant details, without glare or distortion. If the image does not meet these criteria, promptly reattempt to achieve the desired quality.
Dermoscopic Photography
Dermoscopy, which enables magnified examination of skin lesions, is increasingly being utilized in dermatology. While traditional dermoscopic photography requires specialized equipment, such as large single-lens reflex cameras with dedicated dermoscopic lens attachments, smartphone cameras now can be used to obtain dermoscopic images of reasonable quality.3,4 Adhering to specific practices can help to optimize the quality of dermoscopic images obtained via this technique.
Before capturing an image, it is essential to prepare both the lesion and the surrounding skin. Ensure the area is cleaned thoroughly and trim any hairs that may obscure the image. Apply an interface fluid such as rubbing alcohol or ultrasonography gel to improve image clarity by reducing surface tension and reflections, minimizing glare, and ensuring even light transmission throughout the lesion.5 As recommended for clinical photography, images should be captured in a space with ample indirect light. For best results, we recommend utilizing the primary photo capture option instead of portrait or panoramic mode or additional settings. It is crucial to disable features such as live focus, filters, night mode, and flash, as they may alter image accuracy; however, use of the tap-to-focus feature or manual settings adjustment is encouraged to ensure a high-resolution photograph.
Once these smartphone settings have been verified, position the dermatoscope directly over the lesion of interest. Next, place the smartphone camera lens directly against the eyepiece of the dermatoscope (Figure). Center the lesion in the field of view on the screen. Most smartphones enable adjustment to the image magnification on the photo capture screen. A single tap on the screen should populate the zoom options (eg, ×0.5, ×1, ×3) and allow for adjustment. For the majority of dermoscopic photographs, we recommend standard ×1 magnification, as it typically provides a clear and accurate representation of the lesion without introducing the possibility of image distortion. To obtain a close-up image, use the smartphone’s digital zoom function prior to taking the photograph rather than zooming in on the image after it has been captured; however, to minimize proximity distortion and maintain optimal image quality, avoid exceeding the halfway point on the camera’s zoom dial. After verifying the image preview on the smartphone display, capture the photograph. Immediate review is recommended to allow for prompt reattempt at capturing the image if needed.

PRACTICE IMPLICATIONS
The inherent convenience and accessibility offered by smartphone photography further solidifies its status as a valuable tool in modern dermatologic practice. By adhering to the best practices outlined in this guide, dermatologists can utilize smartphones to capture high-quality clinical and dermoscopic images that support accurate diagnosis and enhance patient care. This approach helps streamline workflows, enhance consistency in image quality, and standardize image capture across different settings and providers.
Additionally, smartphone photography can enhance both education and telemedicine by enabling physicians to easily share high-quality images with colleagues for virtual consultations, second opinions, and collaborative diagnoses. This sharing of images fosters learning opportunities, supports knowledge exchange, and allows for real-time feedback—all of which can improve clinical decision-making. Moreover, it broadens access to dermatologic expertise, strengthens communication between health care providers, and facilitates timely decision-making. As a result, patients benefit from more efficient, accurate, and collaborative care.
PRACTICE GAP
Photography is an essential tool in modern dermatologic practice, aiding in the evaluation, documentation, and monitoring of nevi, skin cancers, and other cutaneous pathologies.1 With the rapid technologic advancement of smartphone cameras, high-quality clinical and dermoscopic images have become increasingly easy to attain; however, best practices for optimizing smartphone photography are limited in the medical literature. We have collated a series of recommendations to help fill this knowledge gap.
A search of PubMed articles indexed for MEDLINE was conducted using the terms clinical imaging AND smartphone, clinical photography AND smartphone, dermatology AND photography, dermatology AND imaging, dermoscopy AND photography, and dermoscopy AND imaging. We also consulted with Elizabeth Seiverling, MD (Annville, Pennsylvania) and Jennifer Stein, MD (New York, New York)—both renowned experts in the fields of dermatology, dermoscopy, and medical photography—via email and video meetings conducted during the period from June 1, 2022, through August 20, 2022. Our goal in creating this guide is to facilitate standardized yet simple ways to integrate smartphone photography into current dermatologic practice.
THE TECHNIQUE
Clinical Photography
Clinical images should be captured in a space with ample indirect natural light, such as a patient examination room with frosted or draped windows, ensuring patient privacy is maintained.1,2 The smartphone’s flash can be used if natural lighting is insufficient, but caution should be exercised when photographing patients with darker skin types, as the flash may create an undesired glare. To combat this, consider using a small clip-on light-emitting diode ring light positioned at a 45° angle for more uniform lighting and reduced glare (eFigures 1 and 2).2 This additional light source helps to distribute light evenly across the patient’s skin, enhancing detail visibility, minimizing harsh shadows, and ensuring a more accurate representation of skin pigmentation.2


When a magnified image is required (eg, to capture suspicious lesions with unique and detailed findings such as irregular borders or atypical pigmentation), use the smartphone’s digital zoom function rather than physically moving the camera lens closer to the subject. Moving the camera too close can cause proximity distortion, artificially enlarging objects close to the lens and degrading the quality of the image.1,2 Unnecessary camera features such as portrait mode, live focus, and filters should be turned off to maintain image accuracy. It also is important to avoid excessive manual adjustments to exposure and brightness settings.1,2 The tap-to-focus feature that is integrated into many smartphone cameras can be utilized to ensure the capture of sharp, focused images. After verifying the image preview on the smartphone display, take the photograph. Immediately review the captured image to ensure it is clear and well lit and accurately depicts the area of interest, including its color, texture, and any relevant details, without glare or distortion. If the image does not meet these criteria, promptly reattempt to achieve the desired quality.
Dermoscopic Photography
Dermoscopy, which enables magnified examination of skin lesions, is increasingly being utilized in dermatology. While traditional dermoscopic photography requires specialized equipment, such as large single-lens reflex cameras with dedicated dermoscopic lens attachments, smartphone cameras now can be used to obtain dermoscopic images of reasonable quality.3,4 Adhering to specific practices can help to optimize the quality of dermoscopic images obtained via this technique.
Before capturing an image, it is essential to prepare both the lesion and the surrounding skin. Ensure the area is cleaned thoroughly and trim any hairs that may obscure the image. Apply an interface fluid such as rubbing alcohol or ultrasonography gel to improve image clarity by reducing surface tension and reflections, minimizing glare, and ensuring even light transmission throughout the lesion.5 As recommended for clinical photography, images should be captured in a space with ample indirect light. For best results, we recommend utilizing the primary photo capture option instead of portrait or panoramic mode or additional settings. It is crucial to disable features such as live focus, filters, night mode, and flash, as they may alter image accuracy; however, use of the tap-to-focus feature or manual settings adjustment is encouraged to ensure a high-resolution photograph.
Once these smartphone settings have been verified, position the dermatoscope directly over the lesion of interest. Next, place the smartphone camera lens directly against the eyepiece of the dermatoscope (Figure). Center the lesion in the field of view on the screen. Most smartphones enable adjustment to the image magnification on the photo capture screen. A single tap on the screen should populate the zoom options (eg, ×0.5, ×1, ×3) and allow for adjustment. For the majority of dermoscopic photographs, we recommend standard ×1 magnification, as it typically provides a clear and accurate representation of the lesion without introducing the possibility of image distortion. To obtain a close-up image, use the smartphone’s digital zoom function prior to taking the photograph rather than zooming in on the image after it has been captured; however, to minimize proximity distortion and maintain optimal image quality, avoid exceeding the halfway point on the camera’s zoom dial. After verifying the image preview on the smartphone display, capture the photograph. Immediate review is recommended to allow for prompt reattempt at capturing the image if needed.

PRACTICE IMPLICATIONS
The inherent convenience and accessibility offered by smartphone photography further solidifies its status as a valuable tool in modern dermatologic practice. By adhering to the best practices outlined in this guide, dermatologists can utilize smartphones to capture high-quality clinical and dermoscopic images that support accurate diagnosis and enhance patient care. This approach helps streamline workflows, enhance consistency in image quality, and standardize image capture across different settings and providers.
Additionally, smartphone photography can enhance both education and telemedicine by enabling physicians to easily share high-quality images with colleagues for virtual consultations, second opinions, and collaborative diagnoses. This sharing of images fosters learning opportunities, supports knowledge exchange, and allows for real-time feedback—all of which can improve clinical decision-making. Moreover, it broadens access to dermatologic expertise, strengthens communication between health care providers, and facilitates timely decision-making. As a result, patients benefit from more efficient, accurate, and collaborative care.
- Muraco L. Improved medical photography: key tips for creating images of lasting value. JAMA Dermatol. 2020;156:121-123. doi:10.1001 /jamadermatol.2019.3849
- Alvarado SM, Flessland P, Grant-Kels JM, et al. Practical strategies for improving clinical photography of dark skin. J Am Acad Dermatol. 2022;86:E21-E23. doi:10.1016/j.jaad.2021.09.001
- Pagliarello C, Feliciani C, Fantini C, et al. Use of the dermoscope as a smartphone close-up lens and LED annular macro ring flash. J Am Acad Dermatol. 2016;75:E27–E28. doi:10.1016/j.jaad .2015.12.04
- Zuo KJ, Guo D, Rao J. Mobile teledermatology: a promising future in clinical practice. J Cutan Med Surg. 2013;17:387-391. doi:10.2310/7750.2013.13030
- Gewirtzman AJ, Saurat J-H, Braun RP. An evaluation of dermscopy fluids and application techniques. Br J Dermatol. 2003;149:59-63. doi:10.1046/j.1365-2133.2003.05366.x
- Muraco L. Improved medical photography: key tips for creating images of lasting value. JAMA Dermatol. 2020;156:121-123. doi:10.1001 /jamadermatol.2019.3849
- Alvarado SM, Flessland P, Grant-Kels JM, et al. Practical strategies for improving clinical photography of dark skin. J Am Acad Dermatol. 2022;86:E21-E23. doi:10.1016/j.jaad.2021.09.001
- Pagliarello C, Feliciani C, Fantini C, et al. Use of the dermoscope as a smartphone close-up lens and LED annular macro ring flash. J Am Acad Dermatol. 2016;75:E27–E28. doi:10.1016/j.jaad .2015.12.04
- Zuo KJ, Guo D, Rao J. Mobile teledermatology: a promising future in clinical practice. J Cutan Med Surg. 2013;17:387-391. doi:10.2310/7750.2013.13030
- Gewirtzman AJ, Saurat J-H, Braun RP. An evaluation of dermscopy fluids and application techniques. Br J Dermatol. 2003;149:59-63. doi:10.1046/j.1365-2133.2003.05366.x
Best Practices for Capturing Clinical and Dermoscopic Images With Smartphone Photography
Best Practices for Capturing Clinical and Dermoscopic Images With Smartphone Photography
Dome-Shaped White Papules on the Earlobe
Dome-Shaped White Papules on the Earlobe
THE DIAGNOSIS: Trichodiscoma
Histologic evaluation revealed an unremarkable epidermal surface and a subjacent well-demarcated superficial dermal nodule showing a proliferation, sometimes fascicular, of wavy and spindled fibroblasts with some stellate forms within a variably loose fibrous stroma. Some angioplasia and vascular ectasia also were seen (Figure). A diagnosis of trichodiscoma was made based on these histologic findings.

While the patient’s personal and family history of pneumothorax originally had been attributed to other causes, the diagnosis of trichodiscoma raised suspicion for Birt-Hogg-Dubé syndrome due to the classic association of skin lesions (often trichodiscomas), renal cell carcinoma, and spontaneous pneumothorax in this condition. The patient was sent for genetic testing for the associated folliculin (FLCN) gene, which was positive and thereby confirmed the diagnosis of Birt-Hogg-Dubé syndrome. At the most recent follow-up almost 2 years after initial presentation, the lesions on the earlobe were stable. The patient has since undergone screening for abdominal and renal neoplasia with negative results, and he has had no other occurrences of pneumothorax.
Our case highlights the association between trichodiscomas and Birt-Hogg-Dubé syndrome, which necessitates screening for renal cell carcinoma, pneumothorax, and lung cysts.1 Birt-Hogg-Dubé syndrome is an autosomal- dominant disorder of the skin and lungs that is characterized by a predisposition for renal carcinoma, pneumothorax, and colon polyps as well as cutaneous markers that include fibrofolliculomas, acrochordons, and trichodiscomas; the trichodiscomas tend to manifest as numerous smooth, flesh-colored or grayish-white papules on the face, ears, neck, and/or upper trunk.1
Trichodiscomas are benign lesions and do not require treatment2; however, if they are cosmetically bothersome to the patient, surgical excision is an option for single lesions. For more widespread cutaneous disease, combination therapy with a CO2 laser and erbium-doped yttrium aluminum garnet laser may be utilized.3 The differential diagnosis for trichodiscoma includes basal cell carcinoma, fibrous papule, dermal nevus, and trichofolliculoma.
Basal cell carcinoma is the most common type of skin cancer.4 Clinically, it typically manifests as pink or flesh-colored papules on the head or neck, often with overlying ulceration or telangiectasia. Due to its association with chronic sun exposure, the median age of diagnosis for basal cell carcinoma is 68 years. Histopathologically, basal cell carcinoma is characterized by islands or nests of atypical basaloid cells with palisading cells at the periphery.4 Treatment depends on the location and size of the lesion, but Mohs micrographic surgery is the most common intervention on the face and ears.5
In contrast, fibrous papules are benign lesions that manifest clinically as small, firm, flesh-colored papules that most commonly are found on the nose.6,7 On dermatopathology, classic findings include fibrovascular proliferation and scattered multinucleated triangular or stellate cells in the upper dermis.7 Due to the benign nature of the lesion, treatment is not required6; however, shave excision, electrodessication, and laser therapies can be attempted if the patient chooses to pursue treatment.8
Dermal nevus is a type of benign acquired melanocytic nevus that manifests clinically as a light-brown to flesh-colored, dome-shaped or papillomatous papule.9 It typically develops in areas that are exposed to the sun, including the face.10 There also have been cases of dermal nevi on the ear.11 Histopathology shows melanocytic nevus cells that have completely detached from the epidermis and are located entirely in the dermis.12 While dermal nevi are benign and treatment is not necessary, surgical excision is an option for patients who request removal.13
Trichofolliculoma is a benign tumor of the adnexa that shows follicular differentiation on histopathology.14 On physical examination, it manifests as an isolated flesh-colored papule or nodule with a central pore from which tufted hairs protrude. These lesions usually appear on the face or scalp and occur more commonly in women than in men. While these may be clinically indistinguishable from trichodiscomas, the absence of protruding hair in our patient’s case makes trichofolliculoma less likely. When biopsied, histopathology classically shows a cystically dilated hair follicle with keratinous material and several mature and immature branched follicular structures. Preferred treatment for trichofolliculomas is surgical excision, and recurrence is rare.14
- Toro JR, Glenn G, Duray P, et al. Birt-Hogg-Dubé syndrome: a novel marker of kidney neoplasia. Arch Dermatol. 1999;135:1195-202. doi:10.1001/archderm.135.10.1195
- Tong Y, Coda AB, Schneider JA, et al. Familial multiple trichodiscomas: case report and concise review. Cureus. 2017;9:E1596. doi:10.7759/cureus.1596
- Riley J, Athalye L, Tran D, et al. Concomitant fibrofolliculoma and trichodiscoma on the abdomen. Cutis. 2018;102:E30-E32.
- McDaniel B, Badri T, Steele RB. Basal cell carcinoma. StatPearls [Internet]. Updated March 13, 2024. Accessed December 19, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482439/
- Bittner GC, Kubo EM, Fantini BC, et al. Auricular reconstruction after Mohs micrographic surgery: analysis of 101 cases. An Bras Dermatol. 2021;96:408-415. doi:10.1016/j.abd.2020.12.008
- Damman J, Biswas A. Fibrous papule: a histopathologic review. Am J Dermatopathol. 2018;40:551-560. doi:10.1097/DAD.0000000000001083
- Jacyk WK, Rütten A, Requena L. Fibrous papule of the face with granular cells. Dermatology. 2008;216:56-59. doi:10.1159/000109359
- Macri A, Kwan E, Tanner LS. Cutaneous angiofibroma. StatPearls [Internet]. Updated July 19, 2024. Accessed December 19, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482470/
- Sardana K, Chakravarty P, Goel K. Optimal management of common acquired melanocytic nevi (moles): current perspectives. Clin Cosmet Investig Dermatol. 2014;7:89-103. doi:10.2147/CCID.S57782
- Conforti C, Giuffrida R, Agozzino M, et al. Basal cell carcinoma and dermal nevi of the face: comparison of localization and dermatoscopic features. Int J Dermatol. 2021;60:996-1002. doi:10.1111/ijd.15554
- Alves RV, Brandão FH, Aquino JE, et al. Intradermal melanocytic nevus of the external auditory canal. Braz J Otorhinolaryngol. 2005;71:104-106. doi: 10.1016/s1808-8694(15)31295-7
- Muradia I, Khunger N, Yadav AK. A clinical, dermoscopic, and histopathological analysis of common acquired melanocytic nevi in skin of color. J Clin Aesthet Dermatol. 2022;15:41-51.
- Sardana K, Chakravarty P, Goel K. Optimal management of common acquired melanocytic nevi (moles): current perspectives. Clin Cosmet Investig Dermatol. 2014;7:89-103. doi:10.2147/CCID.S57782
- Massara B, Sellami K, Graja S, et al. Trichofolliculoma: a case series. J Clin Aesthet Dermatol. 2023;16:41-43.
THE DIAGNOSIS: Trichodiscoma
Histologic evaluation revealed an unremarkable epidermal surface and a subjacent well-demarcated superficial dermal nodule showing a proliferation, sometimes fascicular, of wavy and spindled fibroblasts with some stellate forms within a variably loose fibrous stroma. Some angioplasia and vascular ectasia also were seen (Figure). A diagnosis of trichodiscoma was made based on these histologic findings.

While the patient’s personal and family history of pneumothorax originally had been attributed to other causes, the diagnosis of trichodiscoma raised suspicion for Birt-Hogg-Dubé syndrome due to the classic association of skin lesions (often trichodiscomas), renal cell carcinoma, and spontaneous pneumothorax in this condition. The patient was sent for genetic testing for the associated folliculin (FLCN) gene, which was positive and thereby confirmed the diagnosis of Birt-Hogg-Dubé syndrome. At the most recent follow-up almost 2 years after initial presentation, the lesions on the earlobe were stable. The patient has since undergone screening for abdominal and renal neoplasia with negative results, and he has had no other occurrences of pneumothorax.
Our case highlights the association between trichodiscomas and Birt-Hogg-Dubé syndrome, which necessitates screening for renal cell carcinoma, pneumothorax, and lung cysts.1 Birt-Hogg-Dubé syndrome is an autosomal- dominant disorder of the skin and lungs that is characterized by a predisposition for renal carcinoma, pneumothorax, and colon polyps as well as cutaneous markers that include fibrofolliculomas, acrochordons, and trichodiscomas; the trichodiscomas tend to manifest as numerous smooth, flesh-colored or grayish-white papules on the face, ears, neck, and/or upper trunk.1
Trichodiscomas are benign lesions and do not require treatment2; however, if they are cosmetically bothersome to the patient, surgical excision is an option for single lesions. For more widespread cutaneous disease, combination therapy with a CO2 laser and erbium-doped yttrium aluminum garnet laser may be utilized.3 The differential diagnosis for trichodiscoma includes basal cell carcinoma, fibrous papule, dermal nevus, and trichofolliculoma.
Basal cell carcinoma is the most common type of skin cancer.4 Clinically, it typically manifests as pink or flesh-colored papules on the head or neck, often with overlying ulceration or telangiectasia. Due to its association with chronic sun exposure, the median age of diagnosis for basal cell carcinoma is 68 years. Histopathologically, basal cell carcinoma is characterized by islands or nests of atypical basaloid cells with palisading cells at the periphery.4 Treatment depends on the location and size of the lesion, but Mohs micrographic surgery is the most common intervention on the face and ears.5
In contrast, fibrous papules are benign lesions that manifest clinically as small, firm, flesh-colored papules that most commonly are found on the nose.6,7 On dermatopathology, classic findings include fibrovascular proliferation and scattered multinucleated triangular or stellate cells in the upper dermis.7 Due to the benign nature of the lesion, treatment is not required6; however, shave excision, electrodessication, and laser therapies can be attempted if the patient chooses to pursue treatment.8
Dermal nevus is a type of benign acquired melanocytic nevus that manifests clinically as a light-brown to flesh-colored, dome-shaped or papillomatous papule.9 It typically develops in areas that are exposed to the sun, including the face.10 There also have been cases of dermal nevi on the ear.11 Histopathology shows melanocytic nevus cells that have completely detached from the epidermis and are located entirely in the dermis.12 While dermal nevi are benign and treatment is not necessary, surgical excision is an option for patients who request removal.13
Trichofolliculoma is a benign tumor of the adnexa that shows follicular differentiation on histopathology.14 On physical examination, it manifests as an isolated flesh-colored papule or nodule with a central pore from which tufted hairs protrude. These lesions usually appear on the face or scalp and occur more commonly in women than in men. While these may be clinically indistinguishable from trichodiscomas, the absence of protruding hair in our patient’s case makes trichofolliculoma less likely. When biopsied, histopathology classically shows a cystically dilated hair follicle with keratinous material and several mature and immature branched follicular structures. Preferred treatment for trichofolliculomas is surgical excision, and recurrence is rare.14
THE DIAGNOSIS: Trichodiscoma
Histologic evaluation revealed an unremarkable epidermal surface and a subjacent well-demarcated superficial dermal nodule showing a proliferation, sometimes fascicular, of wavy and spindled fibroblasts with some stellate forms within a variably loose fibrous stroma. Some angioplasia and vascular ectasia also were seen (Figure). A diagnosis of trichodiscoma was made based on these histologic findings.

While the patient’s personal and family history of pneumothorax originally had been attributed to other causes, the diagnosis of trichodiscoma raised suspicion for Birt-Hogg-Dubé syndrome due to the classic association of skin lesions (often trichodiscomas), renal cell carcinoma, and spontaneous pneumothorax in this condition. The patient was sent for genetic testing for the associated folliculin (FLCN) gene, which was positive and thereby confirmed the diagnosis of Birt-Hogg-Dubé syndrome. At the most recent follow-up almost 2 years after initial presentation, the lesions on the earlobe were stable. The patient has since undergone screening for abdominal and renal neoplasia with negative results, and he has had no other occurrences of pneumothorax.
Our case highlights the association between trichodiscomas and Birt-Hogg-Dubé syndrome, which necessitates screening for renal cell carcinoma, pneumothorax, and lung cysts.1 Birt-Hogg-Dubé syndrome is an autosomal- dominant disorder of the skin and lungs that is characterized by a predisposition for renal carcinoma, pneumothorax, and colon polyps as well as cutaneous markers that include fibrofolliculomas, acrochordons, and trichodiscomas; the trichodiscomas tend to manifest as numerous smooth, flesh-colored or grayish-white papules on the face, ears, neck, and/or upper trunk.1
Trichodiscomas are benign lesions and do not require treatment2; however, if they are cosmetically bothersome to the patient, surgical excision is an option for single lesions. For more widespread cutaneous disease, combination therapy with a CO2 laser and erbium-doped yttrium aluminum garnet laser may be utilized.3 The differential diagnosis for trichodiscoma includes basal cell carcinoma, fibrous papule, dermal nevus, and trichofolliculoma.
Basal cell carcinoma is the most common type of skin cancer.4 Clinically, it typically manifests as pink or flesh-colored papules on the head or neck, often with overlying ulceration or telangiectasia. Due to its association with chronic sun exposure, the median age of diagnosis for basal cell carcinoma is 68 years. Histopathologically, basal cell carcinoma is characterized by islands or nests of atypical basaloid cells with palisading cells at the periphery.4 Treatment depends on the location and size of the lesion, but Mohs micrographic surgery is the most common intervention on the face and ears.5
In contrast, fibrous papules are benign lesions that manifest clinically as small, firm, flesh-colored papules that most commonly are found on the nose.6,7 On dermatopathology, classic findings include fibrovascular proliferation and scattered multinucleated triangular or stellate cells in the upper dermis.7 Due to the benign nature of the lesion, treatment is not required6; however, shave excision, electrodessication, and laser therapies can be attempted if the patient chooses to pursue treatment.8
Dermal nevus is a type of benign acquired melanocytic nevus that manifests clinically as a light-brown to flesh-colored, dome-shaped or papillomatous papule.9 It typically develops in areas that are exposed to the sun, including the face.10 There also have been cases of dermal nevi on the ear.11 Histopathology shows melanocytic nevus cells that have completely detached from the epidermis and are located entirely in the dermis.12 While dermal nevi are benign and treatment is not necessary, surgical excision is an option for patients who request removal.13
Trichofolliculoma is a benign tumor of the adnexa that shows follicular differentiation on histopathology.14 On physical examination, it manifests as an isolated flesh-colored papule or nodule with a central pore from which tufted hairs protrude. These lesions usually appear on the face or scalp and occur more commonly in women than in men. While these may be clinically indistinguishable from trichodiscomas, the absence of protruding hair in our patient’s case makes trichofolliculoma less likely. When biopsied, histopathology classically shows a cystically dilated hair follicle with keratinous material and several mature and immature branched follicular structures. Preferred treatment for trichofolliculomas is surgical excision, and recurrence is rare.14
- Toro JR, Glenn G, Duray P, et al. Birt-Hogg-Dubé syndrome: a novel marker of kidney neoplasia. Arch Dermatol. 1999;135:1195-202. doi:10.1001/archderm.135.10.1195
- Tong Y, Coda AB, Schneider JA, et al. Familial multiple trichodiscomas: case report and concise review. Cureus. 2017;9:E1596. doi:10.7759/cureus.1596
- Riley J, Athalye L, Tran D, et al. Concomitant fibrofolliculoma and trichodiscoma on the abdomen. Cutis. 2018;102:E30-E32.
- McDaniel B, Badri T, Steele RB. Basal cell carcinoma. StatPearls [Internet]. Updated March 13, 2024. Accessed December 19, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482439/
- Bittner GC, Kubo EM, Fantini BC, et al. Auricular reconstruction after Mohs micrographic surgery: analysis of 101 cases. An Bras Dermatol. 2021;96:408-415. doi:10.1016/j.abd.2020.12.008
- Damman J, Biswas A. Fibrous papule: a histopathologic review. Am J Dermatopathol. 2018;40:551-560. doi:10.1097/DAD.0000000000001083
- Jacyk WK, Rütten A, Requena L. Fibrous papule of the face with granular cells. Dermatology. 2008;216:56-59. doi:10.1159/000109359
- Macri A, Kwan E, Tanner LS. Cutaneous angiofibroma. StatPearls [Internet]. Updated July 19, 2024. Accessed December 19, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482470/
- Sardana K, Chakravarty P, Goel K. Optimal management of common acquired melanocytic nevi (moles): current perspectives. Clin Cosmet Investig Dermatol. 2014;7:89-103. doi:10.2147/CCID.S57782
- Conforti C, Giuffrida R, Agozzino M, et al. Basal cell carcinoma and dermal nevi of the face: comparison of localization and dermatoscopic features. Int J Dermatol. 2021;60:996-1002. doi:10.1111/ijd.15554
- Alves RV, Brandão FH, Aquino JE, et al. Intradermal melanocytic nevus of the external auditory canal. Braz J Otorhinolaryngol. 2005;71:104-106. doi: 10.1016/s1808-8694(15)31295-7
- Muradia I, Khunger N, Yadav AK. A clinical, dermoscopic, and histopathological analysis of common acquired melanocytic nevi in skin of color. J Clin Aesthet Dermatol. 2022;15:41-51.
- Sardana K, Chakravarty P, Goel K. Optimal management of common acquired melanocytic nevi (moles): current perspectives. Clin Cosmet Investig Dermatol. 2014;7:89-103. doi:10.2147/CCID.S57782
- Massara B, Sellami K, Graja S, et al. Trichofolliculoma: a case series. J Clin Aesthet Dermatol. 2023;16:41-43.
- Toro JR, Glenn G, Duray P, et al. Birt-Hogg-Dubé syndrome: a novel marker of kidney neoplasia. Arch Dermatol. 1999;135:1195-202. doi:10.1001/archderm.135.10.1195
- Tong Y, Coda AB, Schneider JA, et al. Familial multiple trichodiscomas: case report and concise review. Cureus. 2017;9:E1596. doi:10.7759/cureus.1596
- Riley J, Athalye L, Tran D, et al. Concomitant fibrofolliculoma and trichodiscoma on the abdomen. Cutis. 2018;102:E30-E32.
- McDaniel B, Badri T, Steele RB. Basal cell carcinoma. StatPearls [Internet]. Updated March 13, 2024. Accessed December 19, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482439/
- Bittner GC, Kubo EM, Fantini BC, et al. Auricular reconstruction after Mohs micrographic surgery: analysis of 101 cases. An Bras Dermatol. 2021;96:408-415. doi:10.1016/j.abd.2020.12.008
- Damman J, Biswas A. Fibrous papule: a histopathologic review. Am J Dermatopathol. 2018;40:551-560. doi:10.1097/DAD.0000000000001083
- Jacyk WK, Rütten A, Requena L. Fibrous papule of the face with granular cells. Dermatology. 2008;216:56-59. doi:10.1159/000109359
- Macri A, Kwan E, Tanner LS. Cutaneous angiofibroma. StatPearls [Internet]. Updated July 19, 2024. Accessed December 19, 2024. https://www.ncbi.nlm.nih.gov/books/NBK482470/
- Sardana K, Chakravarty P, Goel K. Optimal management of common acquired melanocytic nevi (moles): current perspectives. Clin Cosmet Investig Dermatol. 2014;7:89-103. doi:10.2147/CCID.S57782
- Conforti C, Giuffrida R, Agozzino M, et al. Basal cell carcinoma and dermal nevi of the face: comparison of localization and dermatoscopic features. Int J Dermatol. 2021;60:996-1002. doi:10.1111/ijd.15554
- Alves RV, Brandão FH, Aquino JE, et al. Intradermal melanocytic nevus of the external auditory canal. Braz J Otorhinolaryngol. 2005;71:104-106. doi: 10.1016/s1808-8694(15)31295-7
- Muradia I, Khunger N, Yadav AK. A clinical, dermoscopic, and histopathological analysis of common acquired melanocytic nevi in skin of color. J Clin Aesthet Dermatol. 2022;15:41-51.
- Sardana K, Chakravarty P, Goel K. Optimal management of common acquired melanocytic nevi (moles): current perspectives. Clin Cosmet Investig Dermatol. 2014;7:89-103. doi:10.2147/CCID.S57782
- Massara B, Sellami K, Graja S, et al. Trichofolliculoma: a case series. J Clin Aesthet Dermatol. 2023;16:41-43.
Dome-Shaped White Papules on the Earlobe
Dome-Shaped White Papules on the Earlobe
A 70-year-old man presented to the dermatology clinic for a routine full-body skin examination that revealed multiple asymptomatic, dome-shaped, white papules on the left posterior earlobe. The patient had a personal and family history of spontaneous pneumothorax and no history of cancer. A shave biopsy of one of the papules was performed.

Debunking Dermatology Myths to Enhance Patient Care
Debunking Dermatology Myths to Enhance Patient Care
The advent of social media has revolutionized the way patients access and consume health information. While this increased access has its merits, it also has given rise to the proliferation of medical myths, which have considerable effects on patient-physician interactions.1 Myths are prevalent across all fields of health care, ranging from misconceptions about disease etiology and prevention to the efficacy and safety of treatments. This influx of misinformation can derail the clinical encounter, shifting the focus from evidence-based medicine to myth-busting.2 The COVID-19 pandemic exacerbated this issue, as widespread lockdowns and social distancing measures limited access to in-person medical consultations, prompting patients to increasingly turn to online sources for health information that often were unreliable, thereby bypassing professional medical advice.3 Herein, we highlight the challenges and implications of common dermatology myths and provide strategies for effectively debunking these myths to enhance patient care.
Common Dermatology Myths
In dermatology, where visible and often distressing conditions such as acne and hair loss are common, the impact of myths on patient perceptions and treatment outcomes can be particularly profound. Patients often arrive for consultations with preconceived notions that are not grounded in scientific evidence. Common dermatologic myths include eczema and the efficacy of topical corticosteroids, the causes and treatment of hair loss, and risk factors associated with skin cancer.
Eczema and Topical Corticosteroids—Topical corticosteroids for eczema are safe and effective, but nonadherence due to phobias stemming from misinformation online can impede treatment.4 Myths such as red skin syndrome and topical corticosteroid addiction are prevalent. Red skin syndrome refers to claims that prolonged use of topical corticosteroids causes severe redness and burning of the skin and worsening eczema symptoms upon withdrawal. Topical corticosteroid addiction suggests that patients become dependent on corticosteroids, requiring higher doses over time to maintain efficacy. These misconceptions contribute to fear and avoidance of prescribed treatments.
Eczema myths often divert focus from its true etiology as a genetic inflammatory skin disease, suggesting instead that it is caused by leaky gut or food intolerances.4 Risks such as skin thinning and stunted growth often are exaggerated on social media and other nonmedical platforms, though these adverse effects rarely are seen when topical corticosteroids are used appropriately under medical supervision. Misinformation often is linked to companies promoting unregulated consultations, tests, or supposedly natural treatments, including herbal remedies that may surreptitiously contain corticosteroids without clear labeling. This fosters distrust of US Food and Drug Administration– approved and dermatologist-prescribed treatments, as patients may cite concerns based on experiences with or claims about unapproved products.4
Sunscreen and Skin Cancer—In 2018, the American Academy of Dermatology prioritized skin cancer prevention due to suboptimal public adoption of photoprotection measures.5 However, the proliferation of misinformation regarding sunscreen and its potential to cause skin cancer is a more pressing issue. Myths range from claims that sunscreen is ineffective to warnings that it is dangerous, with some social media influencers even suggesting that sunscreen causes skin cancer due to toxic ingredients.6 Oxybenzone, typically found in chemical sunscreens, has been criticized by some advocacy groups and social media influencers as a potential hormone disruptor (ie, a chemical that could interfere with hormone production).7 However, no conclusive evidence has shown that oxybenzone is harmful to humans. Consumer concerns often are based on animal studies in which rats are fed oxybenzone, but mathematical modeling has indicated it would take 277 years of sunscreen use by humans to match the doses used in these studies.8 The false association between sunscreen use and skin cancer is based on flawed studies that found higher rates of skin cancer—including melanoma—in sunscreen users compared to those who did not use sunscreen. However, those using sunscreen also were more likely to travel to sunnier climates and engage in sunbathing, and it may have been this increased sun exposure that elevated their risk for skin cancer.7 It is imperative that the dermatology community counteract this type of misinformation with evidence-based advice.
Hair Loss—Some patients believe that hair loss is caused by wearing hats, frequent shampooing, or even stress in a way that oversimplifies complex physiological processes. Biotin, which commonly is added to supplements for hair, skin, and nails, has been linked to potential risks, such as interference with laboratory testing and false-positive or false-negative results in critical medical tests, which can lead to misdiagnosis or inappropriate treatment.9 Biotin interference can result in falsely low troponin readings, which are critical in diagnosing acute myocardial infarction. Tests for other hormones such as cortisol and parathyroid hormone also are affected, potentially impacting the evaluation and management of endocrine disorders. The US Food and Drug Administration has issued warnings for patients on this topic, emphasizing the importance of informing health care providers about any biotin supplementation prior to laboratory testing. Despite its popularity, there is no substantial scientific evidence to suggest that biotin supplementation promotes hair growth in anyone other than those with deficiency, which is quite rare.9
Myths and the Patient-Physician Relationship
The proliferation of medical myths and misinformation affects the dynamic between patients and dermatologists in several ways. Research across various medical fields has demonstrated that misinformation can substantially impact patient behavior and treatment adherence. Like many other specialists, dermatologists often spend considerable time during consultations with patients debunking myths and correcting misconceptions, which can detract from discussing more critical aspects of the patient’s condition and treatment plan and lead to frustration and anxiety among patients. It also can be challenging for physicians to have these conversations without alienating patients, who may distrust medical recommendations and believe that natural or alternative treatments are superior. This can lead to noncompliance with prescribed treatments, and patients may instead opt to try unproven remedies they encounter online, ultimately resulting in poorer health outcomes.
Strategies to Debunk Myths
By implementing the following strategies, dermatologists can combat the spread of myths, foster trust among patients, and promote adherence to evidence-based treatments:
- Provide educational outreach. Preemptively address myths by giving patients accurate and accessible resources. Including a dedicated section on your clinic’s website with articles, frequently asked questions, videos, and links to reputable sources can be effective. Sharing patient testimonials and before-and-after photographs to demonstrate the success of evidence-based treatments also is recommended, as real-life stories can be powerful tools in dispelling myths.
- Practice effective communication. Involve patients in the decision-making process by discussing their treatment goals, preferences, and concerns. It is important to present all options clearly, including the potential benefits and adverse effects. Discuss the expected outcomes and timelines, and be transparent about the limitations of certain treatment—honesty helps build trust and sets realistic expectations.
- Conduct structured consultations. Ensure that consultations with patients follow a structured format—history, physical examination, and discussion—to help keep the focus on evidence-based practice.
- Leverage technology. Guide patients toward reliable digital patient education tools to empower them with accurate information. Hosting live sessions on social media platforms during which patients can ask questions and receive evidence-based answers also can be beneficial.
Final Thoughts
In summary, the rise of medical myths poses a considerable challenge to dermatologic practice. By understanding the sources and impacts of these myths and employing strategies to dispel them, dermatologists can better navigate the complexities of modern patient interactions and ensure that care remains grounded in scientific evidence.
- Kessler SH, Bachmann E. Debunking health myths on the internet: the persuasive effect of (visual) online communication. Z Gesundheitswissenschaften J Public Health. 2022;30:1823-1835.
- Fridman I, Johnson S, Elston Lafata J. Health information and misinformation: a framework to guide research and practice. JMIR Med Educ. 2023;9:E38687.
- Di Novi C, Kovacic M, Orso CE. Online health information seeking behavior, healthcare access, and health status during exceptional times. J Econ Behav Organ. 2024;220:675-690.
- Finnegan P, Murphy M, O’Connor C. #corticophobia: a review on online misinformation related to topical steroids. Clin Exp Dermatol. 2023;48:112-115.
- Yang EJ, Beck KM, Maarouf M, et al. Truths and myths in sunscreen labeling. J Cosmet Dermatol. 2018;17:1288-1292.
- Hopkins C. What Gen Z gets wrong about sunscreen. New York Times. Published May 27, 2024. Accessed December 16, 2024. https://www.nytimes.com/2024/05/27/well/live/sunscreen-skin-cancer-gen-z.html
- Harvard Health Publishing. The science of sunscreen. Published February 15, 2021. Accessed December 9, 2024. https://www.health.harvard.edu/staying-healthy/the-science-of-sunscreen
- Lim HW, Arellano-Mendoza MI, Stengel F. Current challenges in photoprotection. J Am Acad Dermatol. 2017;76:S91-S99.
- Li D, Ferguson A, Cervinski MA, et al. AACC guidance document on biotin interference in laboratory tests. J Appl Lab Med. 2020; 5:575-587.
The advent of social media has revolutionized the way patients access and consume health information. While this increased access has its merits, it also has given rise to the proliferation of medical myths, which have considerable effects on patient-physician interactions.1 Myths are prevalent across all fields of health care, ranging from misconceptions about disease etiology and prevention to the efficacy and safety of treatments. This influx of misinformation can derail the clinical encounter, shifting the focus from evidence-based medicine to myth-busting.2 The COVID-19 pandemic exacerbated this issue, as widespread lockdowns and social distancing measures limited access to in-person medical consultations, prompting patients to increasingly turn to online sources for health information that often were unreliable, thereby bypassing professional medical advice.3 Herein, we highlight the challenges and implications of common dermatology myths and provide strategies for effectively debunking these myths to enhance patient care.
Common Dermatology Myths
In dermatology, where visible and often distressing conditions such as acne and hair loss are common, the impact of myths on patient perceptions and treatment outcomes can be particularly profound. Patients often arrive for consultations with preconceived notions that are not grounded in scientific evidence. Common dermatologic myths include eczema and the efficacy of topical corticosteroids, the causes and treatment of hair loss, and risk factors associated with skin cancer.
Eczema and Topical Corticosteroids—Topical corticosteroids for eczema are safe and effective, but nonadherence due to phobias stemming from misinformation online can impede treatment.4 Myths such as red skin syndrome and topical corticosteroid addiction are prevalent. Red skin syndrome refers to claims that prolonged use of topical corticosteroids causes severe redness and burning of the skin and worsening eczema symptoms upon withdrawal. Topical corticosteroid addiction suggests that patients become dependent on corticosteroids, requiring higher doses over time to maintain efficacy. These misconceptions contribute to fear and avoidance of prescribed treatments.
Eczema myths often divert focus from its true etiology as a genetic inflammatory skin disease, suggesting instead that it is caused by leaky gut or food intolerances.4 Risks such as skin thinning and stunted growth often are exaggerated on social media and other nonmedical platforms, though these adverse effects rarely are seen when topical corticosteroids are used appropriately under medical supervision. Misinformation often is linked to companies promoting unregulated consultations, tests, or supposedly natural treatments, including herbal remedies that may surreptitiously contain corticosteroids without clear labeling. This fosters distrust of US Food and Drug Administration– approved and dermatologist-prescribed treatments, as patients may cite concerns based on experiences with or claims about unapproved products.4
Sunscreen and Skin Cancer—In 2018, the American Academy of Dermatology prioritized skin cancer prevention due to suboptimal public adoption of photoprotection measures.5 However, the proliferation of misinformation regarding sunscreen and its potential to cause skin cancer is a more pressing issue. Myths range from claims that sunscreen is ineffective to warnings that it is dangerous, with some social media influencers even suggesting that sunscreen causes skin cancer due to toxic ingredients.6 Oxybenzone, typically found in chemical sunscreens, has been criticized by some advocacy groups and social media influencers as a potential hormone disruptor (ie, a chemical that could interfere with hormone production).7 However, no conclusive evidence has shown that oxybenzone is harmful to humans. Consumer concerns often are based on animal studies in which rats are fed oxybenzone, but mathematical modeling has indicated it would take 277 years of sunscreen use by humans to match the doses used in these studies.8 The false association between sunscreen use and skin cancer is based on flawed studies that found higher rates of skin cancer—including melanoma—in sunscreen users compared to those who did not use sunscreen. However, those using sunscreen also were more likely to travel to sunnier climates and engage in sunbathing, and it may have been this increased sun exposure that elevated their risk for skin cancer.7 It is imperative that the dermatology community counteract this type of misinformation with evidence-based advice.
Hair Loss—Some patients believe that hair loss is caused by wearing hats, frequent shampooing, or even stress in a way that oversimplifies complex physiological processes. Biotin, which commonly is added to supplements for hair, skin, and nails, has been linked to potential risks, such as interference with laboratory testing and false-positive or false-negative results in critical medical tests, which can lead to misdiagnosis or inappropriate treatment.9 Biotin interference can result in falsely low troponin readings, which are critical in diagnosing acute myocardial infarction. Tests for other hormones such as cortisol and parathyroid hormone also are affected, potentially impacting the evaluation and management of endocrine disorders. The US Food and Drug Administration has issued warnings for patients on this topic, emphasizing the importance of informing health care providers about any biotin supplementation prior to laboratory testing. Despite its popularity, there is no substantial scientific evidence to suggest that biotin supplementation promotes hair growth in anyone other than those with deficiency, which is quite rare.9
Myths and the Patient-Physician Relationship
The proliferation of medical myths and misinformation affects the dynamic between patients and dermatologists in several ways. Research across various medical fields has demonstrated that misinformation can substantially impact patient behavior and treatment adherence. Like many other specialists, dermatologists often spend considerable time during consultations with patients debunking myths and correcting misconceptions, which can detract from discussing more critical aspects of the patient’s condition and treatment plan and lead to frustration and anxiety among patients. It also can be challenging for physicians to have these conversations without alienating patients, who may distrust medical recommendations and believe that natural or alternative treatments are superior. This can lead to noncompliance with prescribed treatments, and patients may instead opt to try unproven remedies they encounter online, ultimately resulting in poorer health outcomes.
Strategies to Debunk Myths
By implementing the following strategies, dermatologists can combat the spread of myths, foster trust among patients, and promote adherence to evidence-based treatments:
- Provide educational outreach. Preemptively address myths by giving patients accurate and accessible resources. Including a dedicated section on your clinic’s website with articles, frequently asked questions, videos, and links to reputable sources can be effective. Sharing patient testimonials and before-and-after photographs to demonstrate the success of evidence-based treatments also is recommended, as real-life stories can be powerful tools in dispelling myths.
- Practice effective communication. Involve patients in the decision-making process by discussing their treatment goals, preferences, and concerns. It is important to present all options clearly, including the potential benefits and adverse effects. Discuss the expected outcomes and timelines, and be transparent about the limitations of certain treatment—honesty helps build trust and sets realistic expectations.
- Conduct structured consultations. Ensure that consultations with patients follow a structured format—history, physical examination, and discussion—to help keep the focus on evidence-based practice.
- Leverage technology. Guide patients toward reliable digital patient education tools to empower them with accurate information. Hosting live sessions on social media platforms during which patients can ask questions and receive evidence-based answers also can be beneficial.
Final Thoughts
In summary, the rise of medical myths poses a considerable challenge to dermatologic practice. By understanding the sources and impacts of these myths and employing strategies to dispel them, dermatologists can better navigate the complexities of modern patient interactions and ensure that care remains grounded in scientific evidence.
The advent of social media has revolutionized the way patients access and consume health information. While this increased access has its merits, it also has given rise to the proliferation of medical myths, which have considerable effects on patient-physician interactions.1 Myths are prevalent across all fields of health care, ranging from misconceptions about disease etiology and prevention to the efficacy and safety of treatments. This influx of misinformation can derail the clinical encounter, shifting the focus from evidence-based medicine to myth-busting.2 The COVID-19 pandemic exacerbated this issue, as widespread lockdowns and social distancing measures limited access to in-person medical consultations, prompting patients to increasingly turn to online sources for health information that often were unreliable, thereby bypassing professional medical advice.3 Herein, we highlight the challenges and implications of common dermatology myths and provide strategies for effectively debunking these myths to enhance patient care.
Common Dermatology Myths
In dermatology, where visible and often distressing conditions such as acne and hair loss are common, the impact of myths on patient perceptions and treatment outcomes can be particularly profound. Patients often arrive for consultations with preconceived notions that are not grounded in scientific evidence. Common dermatologic myths include eczema and the efficacy of topical corticosteroids, the causes and treatment of hair loss, and risk factors associated with skin cancer.
Eczema and Topical Corticosteroids—Topical corticosteroids for eczema are safe and effective, but nonadherence due to phobias stemming from misinformation online can impede treatment.4 Myths such as red skin syndrome and topical corticosteroid addiction are prevalent. Red skin syndrome refers to claims that prolonged use of topical corticosteroids causes severe redness and burning of the skin and worsening eczema symptoms upon withdrawal. Topical corticosteroid addiction suggests that patients become dependent on corticosteroids, requiring higher doses over time to maintain efficacy. These misconceptions contribute to fear and avoidance of prescribed treatments.
Eczema myths often divert focus from its true etiology as a genetic inflammatory skin disease, suggesting instead that it is caused by leaky gut or food intolerances.4 Risks such as skin thinning and stunted growth often are exaggerated on social media and other nonmedical platforms, though these adverse effects rarely are seen when topical corticosteroids are used appropriately under medical supervision. Misinformation often is linked to companies promoting unregulated consultations, tests, or supposedly natural treatments, including herbal remedies that may surreptitiously contain corticosteroids without clear labeling. This fosters distrust of US Food and Drug Administration– approved and dermatologist-prescribed treatments, as patients may cite concerns based on experiences with or claims about unapproved products.4
Sunscreen and Skin Cancer—In 2018, the American Academy of Dermatology prioritized skin cancer prevention due to suboptimal public adoption of photoprotection measures.5 However, the proliferation of misinformation regarding sunscreen and its potential to cause skin cancer is a more pressing issue. Myths range from claims that sunscreen is ineffective to warnings that it is dangerous, with some social media influencers even suggesting that sunscreen causes skin cancer due to toxic ingredients.6 Oxybenzone, typically found in chemical sunscreens, has been criticized by some advocacy groups and social media influencers as a potential hormone disruptor (ie, a chemical that could interfere with hormone production).7 However, no conclusive evidence has shown that oxybenzone is harmful to humans. Consumer concerns often are based on animal studies in which rats are fed oxybenzone, but mathematical modeling has indicated it would take 277 years of sunscreen use by humans to match the doses used in these studies.8 The false association between sunscreen use and skin cancer is based on flawed studies that found higher rates of skin cancer—including melanoma—in sunscreen users compared to those who did not use sunscreen. However, those using sunscreen also were more likely to travel to sunnier climates and engage in sunbathing, and it may have been this increased sun exposure that elevated their risk for skin cancer.7 It is imperative that the dermatology community counteract this type of misinformation with evidence-based advice.
Hair Loss—Some patients believe that hair loss is caused by wearing hats, frequent shampooing, or even stress in a way that oversimplifies complex physiological processes. Biotin, which commonly is added to supplements for hair, skin, and nails, has been linked to potential risks, such as interference with laboratory testing and false-positive or false-negative results in critical medical tests, which can lead to misdiagnosis or inappropriate treatment.9 Biotin interference can result in falsely low troponin readings, which are critical in diagnosing acute myocardial infarction. Tests for other hormones such as cortisol and parathyroid hormone also are affected, potentially impacting the evaluation and management of endocrine disorders. The US Food and Drug Administration has issued warnings for patients on this topic, emphasizing the importance of informing health care providers about any biotin supplementation prior to laboratory testing. Despite its popularity, there is no substantial scientific evidence to suggest that biotin supplementation promotes hair growth in anyone other than those with deficiency, which is quite rare.9
Myths and the Patient-Physician Relationship
The proliferation of medical myths and misinformation affects the dynamic between patients and dermatologists in several ways. Research across various medical fields has demonstrated that misinformation can substantially impact patient behavior and treatment adherence. Like many other specialists, dermatologists often spend considerable time during consultations with patients debunking myths and correcting misconceptions, which can detract from discussing more critical aspects of the patient’s condition and treatment plan and lead to frustration and anxiety among patients. It also can be challenging for physicians to have these conversations without alienating patients, who may distrust medical recommendations and believe that natural or alternative treatments are superior. This can lead to noncompliance with prescribed treatments, and patients may instead opt to try unproven remedies they encounter online, ultimately resulting in poorer health outcomes.
Strategies to Debunk Myths
By implementing the following strategies, dermatologists can combat the spread of myths, foster trust among patients, and promote adherence to evidence-based treatments:
- Provide educational outreach. Preemptively address myths by giving patients accurate and accessible resources. Including a dedicated section on your clinic’s website with articles, frequently asked questions, videos, and links to reputable sources can be effective. Sharing patient testimonials and before-and-after photographs to demonstrate the success of evidence-based treatments also is recommended, as real-life stories can be powerful tools in dispelling myths.
- Practice effective communication. Involve patients in the decision-making process by discussing their treatment goals, preferences, and concerns. It is important to present all options clearly, including the potential benefits and adverse effects. Discuss the expected outcomes and timelines, and be transparent about the limitations of certain treatment—honesty helps build trust and sets realistic expectations.
- Conduct structured consultations. Ensure that consultations with patients follow a structured format—history, physical examination, and discussion—to help keep the focus on evidence-based practice.
- Leverage technology. Guide patients toward reliable digital patient education tools to empower them with accurate information. Hosting live sessions on social media platforms during which patients can ask questions and receive evidence-based answers also can be beneficial.
Final Thoughts
In summary, the rise of medical myths poses a considerable challenge to dermatologic practice. By understanding the sources and impacts of these myths and employing strategies to dispel them, dermatologists can better navigate the complexities of modern patient interactions and ensure that care remains grounded in scientific evidence.
- Kessler SH, Bachmann E. Debunking health myths on the internet: the persuasive effect of (visual) online communication. Z Gesundheitswissenschaften J Public Health. 2022;30:1823-1835.
- Fridman I, Johnson S, Elston Lafata J. Health information and misinformation: a framework to guide research and practice. JMIR Med Educ. 2023;9:E38687.
- Di Novi C, Kovacic M, Orso CE. Online health information seeking behavior, healthcare access, and health status during exceptional times. J Econ Behav Organ. 2024;220:675-690.
- Finnegan P, Murphy M, O’Connor C. #corticophobia: a review on online misinformation related to topical steroids. Clin Exp Dermatol. 2023;48:112-115.
- Yang EJ, Beck KM, Maarouf M, et al. Truths and myths in sunscreen labeling. J Cosmet Dermatol. 2018;17:1288-1292.
- Hopkins C. What Gen Z gets wrong about sunscreen. New York Times. Published May 27, 2024. Accessed December 16, 2024. https://www.nytimes.com/2024/05/27/well/live/sunscreen-skin-cancer-gen-z.html
- Harvard Health Publishing. The science of sunscreen. Published February 15, 2021. Accessed December 9, 2024. https://www.health.harvard.edu/staying-healthy/the-science-of-sunscreen
- Lim HW, Arellano-Mendoza MI, Stengel F. Current challenges in photoprotection. J Am Acad Dermatol. 2017;76:S91-S99.
- Li D, Ferguson A, Cervinski MA, et al. AACC guidance document on biotin interference in laboratory tests. J Appl Lab Med. 2020; 5:575-587.
- Kessler SH, Bachmann E. Debunking health myths on the internet: the persuasive effect of (visual) online communication. Z Gesundheitswissenschaften J Public Health. 2022;30:1823-1835.
- Fridman I, Johnson S, Elston Lafata J. Health information and misinformation: a framework to guide research and practice. JMIR Med Educ. 2023;9:E38687.
- Di Novi C, Kovacic M, Orso CE. Online health information seeking behavior, healthcare access, and health status during exceptional times. J Econ Behav Organ. 2024;220:675-690.
- Finnegan P, Murphy M, O’Connor C. #corticophobia: a review on online misinformation related to topical steroids. Clin Exp Dermatol. 2023;48:112-115.
- Yang EJ, Beck KM, Maarouf M, et al. Truths and myths in sunscreen labeling. J Cosmet Dermatol. 2018;17:1288-1292.
- Hopkins C. What Gen Z gets wrong about sunscreen. New York Times. Published May 27, 2024. Accessed December 16, 2024. https://www.nytimes.com/2024/05/27/well/live/sunscreen-skin-cancer-gen-z.html
- Harvard Health Publishing. The science of sunscreen. Published February 15, 2021. Accessed December 9, 2024. https://www.health.harvard.edu/staying-healthy/the-science-of-sunscreen
- Lim HW, Arellano-Mendoza MI, Stengel F. Current challenges in photoprotection. J Am Acad Dermatol. 2017;76:S91-S99.
- Li D, Ferguson A, Cervinski MA, et al. AACC guidance document on biotin interference in laboratory tests. J Appl Lab Med. 2020; 5:575-587.
Debunking Dermatology Myths to Enhance Patient Care
Debunking Dermatology Myths to Enhance Patient Care
An Exciting Time to Be a Gastroenterologist
Happy New Year, everyone! As we enter 2025, I’ve been reflecting on just how much has changed in the field of gastroenterology since I completed my fellowship a decade ago.
After developing and disseminating highly effective treatments for hepatitis C, the field of hepatology has shifted rapidly toward identifying and managing other significant causes of liver disease, particularly alcohol-associated liver disease and metabolic dysfunction–associated steatotic liver disease (MASLD). New disease nomenclatures have been developed that have changed the way we describe common diseases – most notably, NALFD is now MASLD and FGID are now DGBI.
There have been marked advances in obesity management, including not only innovations in endobariatric therapies such as intragastric balloons and endoscopic sleeve gastroplasty, but also the introduction of glucagon-like peptide 1 (GLP-1) agonists, which offer new hope in effectively tackling the obesity epidemic. Our growing understanding of the microbiome’s role in health has opened new avenues for treating GI diseases and introduced the potential for more personalized treatment approaches based on individual microbiome profiles. New inflammatory bowel disease (IBD) pharmacotherapeutics have been developed at a dizzying pace – our IBD patients have so many more treatment options today than they did just a decade ago, making treatment decisions much more complex.
Finally, we are just beginning to unleash the potential of artificial intelligence, which is likely to transform the field of medicine and GI clinical practice over the next decade. To be sure, it is an exciting time to be a gastroenterologist, and I can’t wait to see to what the next decade of innovation and discovery will bring.
From the recent AASLD meeting, we bring you exciting new data demonstrating the effectiveness of GLP-1 agonists (specifically, semaglutide) in treating MASH. In January’s Member Spotlight column, we introduce you to Drs. Mindy, Amy, and Kristen Engevik, who share their fascinating career journeys as GI researchers (and sisters!). In our quarterly Perspectives column, Dr. Brijesh Patel and Dr. Gomez Cifuentes share their experiences counseling patients regarding lifestyle modifications for gastroesophageal reflux disease and what strategies have proven to be the most effective adjuncts to pharmacotherapy. We hope you enjoy this and all the exciting content in our January issue.
Megan A. Adams, MD, JD, MSc
Editor in Chief
Happy New Year, everyone! As we enter 2025, I’ve been reflecting on just how much has changed in the field of gastroenterology since I completed my fellowship a decade ago.
After developing and disseminating highly effective treatments for hepatitis C, the field of hepatology has shifted rapidly toward identifying and managing other significant causes of liver disease, particularly alcohol-associated liver disease and metabolic dysfunction–associated steatotic liver disease (MASLD). New disease nomenclatures have been developed that have changed the way we describe common diseases – most notably, NALFD is now MASLD and FGID are now DGBI.
There have been marked advances in obesity management, including not only innovations in endobariatric therapies such as intragastric balloons and endoscopic sleeve gastroplasty, but also the introduction of glucagon-like peptide 1 (GLP-1) agonists, which offer new hope in effectively tackling the obesity epidemic. Our growing understanding of the microbiome’s role in health has opened new avenues for treating GI diseases and introduced the potential for more personalized treatment approaches based on individual microbiome profiles. New inflammatory bowel disease (IBD) pharmacotherapeutics have been developed at a dizzying pace – our IBD patients have so many more treatment options today than they did just a decade ago, making treatment decisions much more complex.
Finally, we are just beginning to unleash the potential of artificial intelligence, which is likely to transform the field of medicine and GI clinical practice over the next decade. To be sure, it is an exciting time to be a gastroenterologist, and I can’t wait to see to what the next decade of innovation and discovery will bring.
From the recent AASLD meeting, we bring you exciting new data demonstrating the effectiveness of GLP-1 agonists (specifically, semaglutide) in treating MASH. In January’s Member Spotlight column, we introduce you to Drs. Mindy, Amy, and Kristen Engevik, who share their fascinating career journeys as GI researchers (and sisters!). In our quarterly Perspectives column, Dr. Brijesh Patel and Dr. Gomez Cifuentes share their experiences counseling patients regarding lifestyle modifications for gastroesophageal reflux disease and what strategies have proven to be the most effective adjuncts to pharmacotherapy. We hope you enjoy this and all the exciting content in our January issue.
Megan A. Adams, MD, JD, MSc
Editor in Chief
Happy New Year, everyone! As we enter 2025, I’ve been reflecting on just how much has changed in the field of gastroenterology since I completed my fellowship a decade ago.
After developing and disseminating highly effective treatments for hepatitis C, the field of hepatology has shifted rapidly toward identifying and managing other significant causes of liver disease, particularly alcohol-associated liver disease and metabolic dysfunction–associated steatotic liver disease (MASLD). New disease nomenclatures have been developed that have changed the way we describe common diseases – most notably, NALFD is now MASLD and FGID are now DGBI.
There have been marked advances in obesity management, including not only innovations in endobariatric therapies such as intragastric balloons and endoscopic sleeve gastroplasty, but also the introduction of glucagon-like peptide 1 (GLP-1) agonists, which offer new hope in effectively tackling the obesity epidemic. Our growing understanding of the microbiome’s role in health has opened new avenues for treating GI diseases and introduced the potential for more personalized treatment approaches based on individual microbiome profiles. New inflammatory bowel disease (IBD) pharmacotherapeutics have been developed at a dizzying pace – our IBD patients have so many more treatment options today than they did just a decade ago, making treatment decisions much more complex.
Finally, we are just beginning to unleash the potential of artificial intelligence, which is likely to transform the field of medicine and GI clinical practice over the next decade. To be sure, it is an exciting time to be a gastroenterologist, and I can’t wait to see to what the next decade of innovation and discovery will bring.
From the recent AASLD meeting, we bring you exciting new data demonstrating the effectiveness of GLP-1 agonists (specifically, semaglutide) in treating MASH. In January’s Member Spotlight column, we introduce you to Drs. Mindy, Amy, and Kristen Engevik, who share their fascinating career journeys as GI researchers (and sisters!). In our quarterly Perspectives column, Dr. Brijesh Patel and Dr. Gomez Cifuentes share their experiences counseling patients regarding lifestyle modifications for gastroesophageal reflux disease and what strategies have proven to be the most effective adjuncts to pharmacotherapy. We hope you enjoy this and all the exciting content in our January issue.
Megan A. Adams, MD, JD, MSc
Editor in Chief
Should the FDA Reconsider Boxed Warnings for Antidepressants?
Paradoxically, and for almost as long, evidence suggests these warnings may have led to fewer depression diagnoses, reduced prescriptions, and, ultimately, higher suicide rates.
With mounting evidence of these negative unintended consequences, some clinicians and researchers are urging the Food and Drug Administration (FDA) to consider revising — or even eliminating — boxed warnings on these medications.
The latest report challenging the utility of the 2005 warnings was particularly sobering. Published in October in Health Affairs, the systematic review of studies from 2003 to 2022 showed a 20%-40% decline in physician visits for depression, a 20%-50% decline in antidepressant use, and an abrupt increase in psychotropic drug poisonings and suicides — all after the warnings were added.
“FDA officials should review the totality of evidence and err on the side of caution in acknowledging possible harms of the antidepressant warnings,” lead author Stephen Soumerai, ScD, professor of population medicine at Harvard Medical School at Harvard Pilgrim Health Care Institute, Boston, Massachusetts and colleagues wrote. They called on the FDA to replace the boxed warnings with a routine warning in labeling.
While good prospective data on the risks and benefits of antidepressants in youth were limited when the boxed warnings were instituted, there is more information now, said Jeffrey Strawn, MD, professor of psychiatry and pediatrics at the University of Cincinnati College of Medicine in Ohio. Strawn, whose research on the topic has been cited frequently over the years, said the new evidence suggests it is time for the FDA to reevaluate the warnings.
“I don’t think that they’ve been useful. They’ve actually been harmful,” Strawn told this news organization. “These boxed warnings have decreased physicians’ and other clinicians’ comfort and tendency to prescribe.”
Decline in Diagnoses
The FDA issued its first warning about the potential for suicidal thoughts and behavior in children in 2003. After an advisory panel weighed the evidence, the agency added a boxed warning in 2005 to all antidepressants for children younger than 18 years. The warning was expanded in 2007 to include young adults through age 24.
Data suggesting that the warnings have had unintended effects can be found going back to just after they were issued. For instance, in 2009, after rising for years, the rate of new pediatric depression diagnoses fell precipitously after the warning was added, with primary care physicians diagnosing 44% fewer cases.
In 2014, citing evidence of fewer diagnoses and rising psychotropic drug poisonings, Weill Cornell Medicine Professor Richard A. Friedman, MD, called on the FDA in a perspective to remove the boxed warnings.
Strawn and colleagues reported in an often-cited 2014 systematic review and meta-analysis that, in nine trials involving 1673 patients and six medications, antidepressants were superior to placebo, with no increased risk for suicidal thoughts or behavior.
He has also studied adverse effects of the medications, reporting in Pharmacotherapy that suicidality risk might be more likely with some medications, such as paroxetine and venlafaxine, and that it could be influenced by baseline suicidality, among many other factors. A Swedish register study found that risk was highest the month before starting a medication, Strawn and colleagues wrote.
Dara Sakolsky, MD, PhD, associate professor of psychiatry and associate medical director, Services for Teens at Risk at the University of Pittsburgh School of Medicine, Pennsylvania, told this news organization that, because of “these negative unintended consequences,” the FDA should lower the temperature by putting the warnings in labeling.
“It makes sense based on the data that we have at hand now,” said Sakolsky.
The Dangers of Untreated Depression
Even with this new information, lingering concerns about earlier studies that pointed to increased suicidality risk may discourage prescribing by primary care physicians and pediatricians, and that worries researchers and psychiatrists.
“My concern is that the risk for suicide and suicidal behavior may be higher in untreated depression than the risk of suicidal thoughts or behaviors from antidepressants,” Jeffrey Bridge, PhD, director of the Center for Suicide Prevention and Research at Nationwide Children’s Hospital, Columbus, Ohio, told this news organization.
Bridge is the lead author of a much-cited 2007 meta-analysis in JAMA that showed that the benefits of antidepressants in children and adolescents appeared to be greater than the risks for suicidality. “The concern about antidepressants must be considered in the context of possible benefit,” wrote Bridge, who also is professor of pediatrics, psychiatry, and behavioral health at Ohio State University College of Medicine, Columbus.
Depression and suicide are a scourge for those younger than 25 years. A 2021 literature review noted that the prevalence of depression — which has been increasing for all Americans — has risen more among adolescents than adults. Depression is “strongly associated with suicide,” the authors wrote.
In 2021, the National Institute of Mental Health reported suicide was the second leading cause of death among 10- to 14-year-olds and the third leading cause of death among those aged 15-24 years.
Suicide kills more kids aged between 10 and 24 years than cancer and all other illnesses combined, John Campo, MD, director of child and adolescent psychiatry at Johns Hopkins University School of Medicine and vice president of psychiatric services at Kennedy Krieger Institute, told this news organization.
Meanwhile, he added, the medications work and clinicians balance risk and benefit in prescribing.
The landmark 2007 Treatment for Adolescents with Depression Study showed that fluoxetine, especially in combination with cognitive-behavioral therapy (CBT), was significantly better than placebo. Since that time, legions of trials have shown the drugs’ effectiveness.
The most effective treatment for teen depression is a combination of CBT and a selective serotonin reuptake inhibitor, said Sakolsky.
“We know that the evidence for that is pretty good,” she said. “On the flip side, we know the risk of having an adverse outcome is pretty low.”
Sakolsky tells patients and families that perhaps 1 in 146 will have a suicidal thought or behavior. “That’s pretty rare when we know how effective these medicines are.”
Strawn said he always notes that no suicides took place in the trials that led to the warning and stresses that he closely monitors patients. “While the more recent prospective data are reassuring,” the suicidality risk “is something that we still talk about,” he said. He also discusses how some antidepressants seem to increase risk more than others.
For Campo, the discussion is based on his reading of the evidence, not the presence of the FDA warning.
“Based on what we know, I still think it’s fair to proceed with the idea that there is a small, but real risk,” he said. However, “at the same time, the medications might be exceptionally helpful for some kids.”
‘What Do We Do Now?’
When the FDA issued its warning in 2005, the agency said it identified the risk for suicidality in a combined analysis of short-term placebo-controlled trials of nine antidepressants. It ultimately included 24 trials involving more than 4400 patients. The risk was highest in the first few months. The average risk for those taking antidepressants was 4%, twice the placebo risk of 2%. There were no suicides in these trials, however.
The trials relied on spontaneous reports of adverse events, not predetermined measures, Campo said. Even so, that 2% difference is “nothing to sneeze at,” he noted.
Bridge’s meta-analysis showed a smaller difference — closer to 0.7%. “But it was still statistically significant,” Campo said. “I have trouble ignoring that.”
The unintended consequences of the warning can’t be studied in a randomized controlled trial. Studies have shown an association but not a direct cause-and-effect relationship between the warning and a decline in treatment and rise in suicides.
But the potential for suicidal thoughts and behavior with antidepressants has been studied prospectively. Some older studies found a significant risk, while more recent trials have not.
While the Health Affairs analysis “certainly makes a strong case,” it is observational data, Campo said.
“The question is, what do we do now in retrospect? Do you say, ‘Never mind. We don’t need the black box warning anymore?’ ” he said. “That would require a pretty careful look.”
The Health Affairs paper “makes me think that there are other areas of research that that need to be completed and done and updated, and then there should be an assessment, a reevaluation from the FDA,” said Bridge. A new meta-analysis “would be very informative,” he said.
What’s Next?
When asked about the Health Affairs paper and whether the agency would review the warnings, an FDA spokesperson told this news organization that the agency “does not comment on specific studies but evaluates them as part of the body of evidence to further our understanding about a particular issue and assist in our mission to protect public health.”
Sakolsky said the data clearly point to the damage that the warning has done over the past 2 decades, but that things might be improving. Studies conducted more recently might not have captured some changes in practice.
For instance, she noted, in 2022, the US Preventive Services Task Force recommended screening for major depressive disorder in adolescents aged 12-18 years. In turn, she has seen more patients in her office who were referred by pediatricians who had conducted the screening, said Sakolsky.
Strawn said the time for pontificating is long past due. “We’re withholding medications and other treatments that could potentially be effective for disorders that, in and of themselves, are associated with a significant increase in the risk of suicide.”
After the FDA instituted the warning, “we were all very nervous,” about the potential fallout, said Campo, adding that a part of him wishes that the warnings had been “more mundane and less dramatic.”
Despite the unintended consequences, “it’s going to be hard to put the genie back in the bottle,” he said.
Campo and Sakolsky reported no relevant financial relationships. Strawn disclosed that his institution has received research funding from the National Institute of Child Health and Human Development, the Patient-Centered Outcomes Research Institute (PCORI), and AbbVie. Bridge reported that he received grant support from the National Institute of Mental Health, Centers for Disease Control and Prevention, and PCORI; is a scientific adviser to Clarigent Health; and is on the Scientific Council of the American Foundation for Suicide Prevention.
A version of this article first appeared on Medscape.com.
Paradoxically, and for almost as long, evidence suggests these warnings may have led to fewer depression diagnoses, reduced prescriptions, and, ultimately, higher suicide rates.
With mounting evidence of these negative unintended consequences, some clinicians and researchers are urging the Food and Drug Administration (FDA) to consider revising — or even eliminating — boxed warnings on these medications.
The latest report challenging the utility of the 2005 warnings was particularly sobering. Published in October in Health Affairs, the systematic review of studies from 2003 to 2022 showed a 20%-40% decline in physician visits for depression, a 20%-50% decline in antidepressant use, and an abrupt increase in psychotropic drug poisonings and suicides — all after the warnings were added.
“FDA officials should review the totality of evidence and err on the side of caution in acknowledging possible harms of the antidepressant warnings,” lead author Stephen Soumerai, ScD, professor of population medicine at Harvard Medical School at Harvard Pilgrim Health Care Institute, Boston, Massachusetts and colleagues wrote. They called on the FDA to replace the boxed warnings with a routine warning in labeling.
While good prospective data on the risks and benefits of antidepressants in youth were limited when the boxed warnings were instituted, there is more information now, said Jeffrey Strawn, MD, professor of psychiatry and pediatrics at the University of Cincinnati College of Medicine in Ohio. Strawn, whose research on the topic has been cited frequently over the years, said the new evidence suggests it is time for the FDA to reevaluate the warnings.
“I don’t think that they’ve been useful. They’ve actually been harmful,” Strawn told this news organization. “These boxed warnings have decreased physicians’ and other clinicians’ comfort and tendency to prescribe.”
Decline in Diagnoses
The FDA issued its first warning about the potential for suicidal thoughts and behavior in children in 2003. After an advisory panel weighed the evidence, the agency added a boxed warning in 2005 to all antidepressants for children younger than 18 years. The warning was expanded in 2007 to include young adults through age 24.
Data suggesting that the warnings have had unintended effects can be found going back to just after they were issued. For instance, in 2009, after rising for years, the rate of new pediatric depression diagnoses fell precipitously after the warning was added, with primary care physicians diagnosing 44% fewer cases.
In 2014, citing evidence of fewer diagnoses and rising psychotropic drug poisonings, Weill Cornell Medicine Professor Richard A. Friedman, MD, called on the FDA in a perspective to remove the boxed warnings.
Strawn and colleagues reported in an often-cited 2014 systematic review and meta-analysis that, in nine trials involving 1673 patients and six medications, antidepressants were superior to placebo, with no increased risk for suicidal thoughts or behavior.
He has also studied adverse effects of the medications, reporting in Pharmacotherapy that suicidality risk might be more likely with some medications, such as paroxetine and venlafaxine, and that it could be influenced by baseline suicidality, among many other factors. A Swedish register study found that risk was highest the month before starting a medication, Strawn and colleagues wrote.
Dara Sakolsky, MD, PhD, associate professor of psychiatry and associate medical director, Services for Teens at Risk at the University of Pittsburgh School of Medicine, Pennsylvania, told this news organization that, because of “these negative unintended consequences,” the FDA should lower the temperature by putting the warnings in labeling.
“It makes sense based on the data that we have at hand now,” said Sakolsky.
The Dangers of Untreated Depression
Even with this new information, lingering concerns about earlier studies that pointed to increased suicidality risk may discourage prescribing by primary care physicians and pediatricians, and that worries researchers and psychiatrists.
“My concern is that the risk for suicide and suicidal behavior may be higher in untreated depression than the risk of suicidal thoughts or behaviors from antidepressants,” Jeffrey Bridge, PhD, director of the Center for Suicide Prevention and Research at Nationwide Children’s Hospital, Columbus, Ohio, told this news organization.
Bridge is the lead author of a much-cited 2007 meta-analysis in JAMA that showed that the benefits of antidepressants in children and adolescents appeared to be greater than the risks for suicidality. “The concern about antidepressants must be considered in the context of possible benefit,” wrote Bridge, who also is professor of pediatrics, psychiatry, and behavioral health at Ohio State University College of Medicine, Columbus.
Depression and suicide are a scourge for those younger than 25 years. A 2021 literature review noted that the prevalence of depression — which has been increasing for all Americans — has risen more among adolescents than adults. Depression is “strongly associated with suicide,” the authors wrote.
In 2021, the National Institute of Mental Health reported suicide was the second leading cause of death among 10- to 14-year-olds and the third leading cause of death among those aged 15-24 years.
Suicide kills more kids aged between 10 and 24 years than cancer and all other illnesses combined, John Campo, MD, director of child and adolescent psychiatry at Johns Hopkins University School of Medicine and vice president of psychiatric services at Kennedy Krieger Institute, told this news organization.
Meanwhile, he added, the medications work and clinicians balance risk and benefit in prescribing.
The landmark 2007 Treatment for Adolescents with Depression Study showed that fluoxetine, especially in combination with cognitive-behavioral therapy (CBT), was significantly better than placebo. Since that time, legions of trials have shown the drugs’ effectiveness.
The most effective treatment for teen depression is a combination of CBT and a selective serotonin reuptake inhibitor, said Sakolsky.
“We know that the evidence for that is pretty good,” she said. “On the flip side, we know the risk of having an adverse outcome is pretty low.”
Sakolsky tells patients and families that perhaps 1 in 146 will have a suicidal thought or behavior. “That’s pretty rare when we know how effective these medicines are.”
Strawn said he always notes that no suicides took place in the trials that led to the warning and stresses that he closely monitors patients. “While the more recent prospective data are reassuring,” the suicidality risk “is something that we still talk about,” he said. He also discusses how some antidepressants seem to increase risk more than others.
For Campo, the discussion is based on his reading of the evidence, not the presence of the FDA warning.
“Based on what we know, I still think it’s fair to proceed with the idea that there is a small, but real risk,” he said. However, “at the same time, the medications might be exceptionally helpful for some kids.”
‘What Do We Do Now?’
When the FDA issued its warning in 2005, the agency said it identified the risk for suicidality in a combined analysis of short-term placebo-controlled trials of nine antidepressants. It ultimately included 24 trials involving more than 4400 patients. The risk was highest in the first few months. The average risk for those taking antidepressants was 4%, twice the placebo risk of 2%. There were no suicides in these trials, however.
The trials relied on spontaneous reports of adverse events, not predetermined measures, Campo said. Even so, that 2% difference is “nothing to sneeze at,” he noted.
Bridge’s meta-analysis showed a smaller difference — closer to 0.7%. “But it was still statistically significant,” Campo said. “I have trouble ignoring that.”
The unintended consequences of the warning can’t be studied in a randomized controlled trial. Studies have shown an association but not a direct cause-and-effect relationship between the warning and a decline in treatment and rise in suicides.
But the potential for suicidal thoughts and behavior with antidepressants has been studied prospectively. Some older studies found a significant risk, while more recent trials have not.
While the Health Affairs analysis “certainly makes a strong case,” it is observational data, Campo said.
“The question is, what do we do now in retrospect? Do you say, ‘Never mind. We don’t need the black box warning anymore?’ ” he said. “That would require a pretty careful look.”
The Health Affairs paper “makes me think that there are other areas of research that that need to be completed and done and updated, and then there should be an assessment, a reevaluation from the FDA,” said Bridge. A new meta-analysis “would be very informative,” he said.
What’s Next?
When asked about the Health Affairs paper and whether the agency would review the warnings, an FDA spokesperson told this news organization that the agency “does not comment on specific studies but evaluates them as part of the body of evidence to further our understanding about a particular issue and assist in our mission to protect public health.”
Sakolsky said the data clearly point to the damage that the warning has done over the past 2 decades, but that things might be improving. Studies conducted more recently might not have captured some changes in practice.
For instance, she noted, in 2022, the US Preventive Services Task Force recommended screening for major depressive disorder in adolescents aged 12-18 years. In turn, she has seen more patients in her office who were referred by pediatricians who had conducted the screening, said Sakolsky.
Strawn said the time for pontificating is long past due. “We’re withholding medications and other treatments that could potentially be effective for disorders that, in and of themselves, are associated with a significant increase in the risk of suicide.”
After the FDA instituted the warning, “we were all very nervous,” about the potential fallout, said Campo, adding that a part of him wishes that the warnings had been “more mundane and less dramatic.”
Despite the unintended consequences, “it’s going to be hard to put the genie back in the bottle,” he said.
Campo and Sakolsky reported no relevant financial relationships. Strawn disclosed that his institution has received research funding from the National Institute of Child Health and Human Development, the Patient-Centered Outcomes Research Institute (PCORI), and AbbVie. Bridge reported that he received grant support from the National Institute of Mental Health, Centers for Disease Control and Prevention, and PCORI; is a scientific adviser to Clarigent Health; and is on the Scientific Council of the American Foundation for Suicide Prevention.
A version of this article first appeared on Medscape.com.
Paradoxically, and for almost as long, evidence suggests these warnings may have led to fewer depression diagnoses, reduced prescriptions, and, ultimately, higher suicide rates.
With mounting evidence of these negative unintended consequences, some clinicians and researchers are urging the Food and Drug Administration (FDA) to consider revising — or even eliminating — boxed warnings on these medications.
The latest report challenging the utility of the 2005 warnings was particularly sobering. Published in October in Health Affairs, the systematic review of studies from 2003 to 2022 showed a 20%-40% decline in physician visits for depression, a 20%-50% decline in antidepressant use, and an abrupt increase in psychotropic drug poisonings and suicides — all after the warnings were added.
“FDA officials should review the totality of evidence and err on the side of caution in acknowledging possible harms of the antidepressant warnings,” lead author Stephen Soumerai, ScD, professor of population medicine at Harvard Medical School at Harvard Pilgrim Health Care Institute, Boston, Massachusetts and colleagues wrote. They called on the FDA to replace the boxed warnings with a routine warning in labeling.
While good prospective data on the risks and benefits of antidepressants in youth were limited when the boxed warnings were instituted, there is more information now, said Jeffrey Strawn, MD, professor of psychiatry and pediatrics at the University of Cincinnati College of Medicine in Ohio. Strawn, whose research on the topic has been cited frequently over the years, said the new evidence suggests it is time for the FDA to reevaluate the warnings.
“I don’t think that they’ve been useful. They’ve actually been harmful,” Strawn told this news organization. “These boxed warnings have decreased physicians’ and other clinicians’ comfort and tendency to prescribe.”
Decline in Diagnoses
The FDA issued its first warning about the potential for suicidal thoughts and behavior in children in 2003. After an advisory panel weighed the evidence, the agency added a boxed warning in 2005 to all antidepressants for children younger than 18 years. The warning was expanded in 2007 to include young adults through age 24.
Data suggesting that the warnings have had unintended effects can be found going back to just after they were issued. For instance, in 2009, after rising for years, the rate of new pediatric depression diagnoses fell precipitously after the warning was added, with primary care physicians diagnosing 44% fewer cases.
In 2014, citing evidence of fewer diagnoses and rising psychotropic drug poisonings, Weill Cornell Medicine Professor Richard A. Friedman, MD, called on the FDA in a perspective to remove the boxed warnings.
Strawn and colleagues reported in an often-cited 2014 systematic review and meta-analysis that, in nine trials involving 1673 patients and six medications, antidepressants were superior to placebo, with no increased risk for suicidal thoughts or behavior.
He has also studied adverse effects of the medications, reporting in Pharmacotherapy that suicidality risk might be more likely with some medications, such as paroxetine and venlafaxine, and that it could be influenced by baseline suicidality, among many other factors. A Swedish register study found that risk was highest the month before starting a medication, Strawn and colleagues wrote.
Dara Sakolsky, MD, PhD, associate professor of psychiatry and associate medical director, Services for Teens at Risk at the University of Pittsburgh School of Medicine, Pennsylvania, told this news organization that, because of “these negative unintended consequences,” the FDA should lower the temperature by putting the warnings in labeling.
“It makes sense based on the data that we have at hand now,” said Sakolsky.
The Dangers of Untreated Depression
Even with this new information, lingering concerns about earlier studies that pointed to increased suicidality risk may discourage prescribing by primary care physicians and pediatricians, and that worries researchers and psychiatrists.
“My concern is that the risk for suicide and suicidal behavior may be higher in untreated depression than the risk of suicidal thoughts or behaviors from antidepressants,” Jeffrey Bridge, PhD, director of the Center for Suicide Prevention and Research at Nationwide Children’s Hospital, Columbus, Ohio, told this news organization.
Bridge is the lead author of a much-cited 2007 meta-analysis in JAMA that showed that the benefits of antidepressants in children and adolescents appeared to be greater than the risks for suicidality. “The concern about antidepressants must be considered in the context of possible benefit,” wrote Bridge, who also is professor of pediatrics, psychiatry, and behavioral health at Ohio State University College of Medicine, Columbus.
Depression and suicide are a scourge for those younger than 25 years. A 2021 literature review noted that the prevalence of depression — which has been increasing for all Americans — has risen more among adolescents than adults. Depression is “strongly associated with suicide,” the authors wrote.
In 2021, the National Institute of Mental Health reported suicide was the second leading cause of death among 10- to 14-year-olds and the third leading cause of death among those aged 15-24 years.
Suicide kills more kids aged between 10 and 24 years than cancer and all other illnesses combined, John Campo, MD, director of child and adolescent psychiatry at Johns Hopkins University School of Medicine and vice president of psychiatric services at Kennedy Krieger Institute, told this news organization.
Meanwhile, he added, the medications work and clinicians balance risk and benefit in prescribing.
The landmark 2007 Treatment for Adolescents with Depression Study showed that fluoxetine, especially in combination with cognitive-behavioral therapy (CBT), was significantly better than placebo. Since that time, legions of trials have shown the drugs’ effectiveness.
The most effective treatment for teen depression is a combination of CBT and a selective serotonin reuptake inhibitor, said Sakolsky.
“We know that the evidence for that is pretty good,” she said. “On the flip side, we know the risk of having an adverse outcome is pretty low.”
Sakolsky tells patients and families that perhaps 1 in 146 will have a suicidal thought or behavior. “That’s pretty rare when we know how effective these medicines are.”
Strawn said he always notes that no suicides took place in the trials that led to the warning and stresses that he closely monitors patients. “While the more recent prospective data are reassuring,” the suicidality risk “is something that we still talk about,” he said. He also discusses how some antidepressants seem to increase risk more than others.
For Campo, the discussion is based on his reading of the evidence, not the presence of the FDA warning.
“Based on what we know, I still think it’s fair to proceed with the idea that there is a small, but real risk,” he said. However, “at the same time, the medications might be exceptionally helpful for some kids.”
‘What Do We Do Now?’
When the FDA issued its warning in 2005, the agency said it identified the risk for suicidality in a combined analysis of short-term placebo-controlled trials of nine antidepressants. It ultimately included 24 trials involving more than 4400 patients. The risk was highest in the first few months. The average risk for those taking antidepressants was 4%, twice the placebo risk of 2%. There were no suicides in these trials, however.
The trials relied on spontaneous reports of adverse events, not predetermined measures, Campo said. Even so, that 2% difference is “nothing to sneeze at,” he noted.
Bridge’s meta-analysis showed a smaller difference — closer to 0.7%. “But it was still statistically significant,” Campo said. “I have trouble ignoring that.”
The unintended consequences of the warning can’t be studied in a randomized controlled trial. Studies have shown an association but not a direct cause-and-effect relationship between the warning and a decline in treatment and rise in suicides.
But the potential for suicidal thoughts and behavior with antidepressants has been studied prospectively. Some older studies found a significant risk, while more recent trials have not.
While the Health Affairs analysis “certainly makes a strong case,” it is observational data, Campo said.
“The question is, what do we do now in retrospect? Do you say, ‘Never mind. We don’t need the black box warning anymore?’ ” he said. “That would require a pretty careful look.”
The Health Affairs paper “makes me think that there are other areas of research that that need to be completed and done and updated, and then there should be an assessment, a reevaluation from the FDA,” said Bridge. A new meta-analysis “would be very informative,” he said.
What’s Next?
When asked about the Health Affairs paper and whether the agency would review the warnings, an FDA spokesperson told this news organization that the agency “does not comment on specific studies but evaluates them as part of the body of evidence to further our understanding about a particular issue and assist in our mission to protect public health.”
Sakolsky said the data clearly point to the damage that the warning has done over the past 2 decades, but that things might be improving. Studies conducted more recently might not have captured some changes in practice.
For instance, she noted, in 2022, the US Preventive Services Task Force recommended screening for major depressive disorder in adolescents aged 12-18 years. In turn, she has seen more patients in her office who were referred by pediatricians who had conducted the screening, said Sakolsky.
Strawn said the time for pontificating is long past due. “We’re withholding medications and other treatments that could potentially be effective for disorders that, in and of themselves, are associated with a significant increase in the risk of suicide.”
After the FDA instituted the warning, “we were all very nervous,” about the potential fallout, said Campo, adding that a part of him wishes that the warnings had been “more mundane and less dramatic.”
Despite the unintended consequences, “it’s going to be hard to put the genie back in the bottle,” he said.
Campo and Sakolsky reported no relevant financial relationships. Strawn disclosed that his institution has received research funding from the National Institute of Child Health and Human Development, the Patient-Centered Outcomes Research Institute (PCORI), and AbbVie. Bridge reported that he received grant support from the National Institute of Mental Health, Centers for Disease Control and Prevention, and PCORI; is a scientific adviser to Clarigent Health; and is on the Scientific Council of the American Foundation for Suicide Prevention.
A version of this article first appeared on Medscape.com.
Hepatocellular Carcinoma: Leading Causes of Mortality Predicted
TOPLINE:
Alcohol-associated liver disease (ALD) will likely become the leading cause of HCC-related mortality by 2026, and metabolic dysfunction–associated steatotic liver disease (MASLD) is projected to become the second leading cause by 2032, a new analysis found.
METHODOLOGY:
- HCC accounts for 75%-85% of primary liver cancers and most liver cancer deaths. Researchers have observed an upward trend in the incidence of and mortality from HCC in the past 2 decades.
- This cross-sectional study analyzed 188,280 HCC-related deaths among adults aged 25 and older to determine trends in mortality rates and project age-standardized mortality rates through 2040. Data came from the National Vital Statistics System database from 2006 to 2022.
- Researchers stratified mortality data by etiology of liver disease (ALD, hepatitis B virus, hepatitis C virus, and MASLD), age groups (25-64 or 65 and older years), sex, and race/ethnicity.
- Demographic data showed that 77.4% of deaths occurred in men, 55.6% in individuals aged 65 years or older, and 62.3% in White individuals.
TAKEAWAY:
- Overall, the age-standardized mortality rate for HCC-related deaths increased from 3.65 per 100,000 persons in 2006 to 5.03 in 2022 and was projected to increase to 6.39 per 100,000 persons by 2040.
- Sex- and age-related disparities were substantial. Men had much higher rates of HCC-related mortality than women (8.15 vs 2.33 per 100,000 persons), with a projected rate among men of 9.78 per 100,000 persons by 2040. HCC-related mortality rates for people aged 65 years or older were 10 times higher than for those aged 25-64 years (18.37 vs 1.79 per 100,000 persons) in 2022 and was projected to reach 32.81 per 100,000 persons by 2040 in the older group.
- Although hepatitis C virus–related deaths were projected to decline from 0.69 to 0.03 per 100,000 persons by 2034, ALD- and MASLD-related deaths showed increasing trends, with both projected to become the two leading causes of HCC-related mortality in the next few years.
- Racial disparities were also evident. By 2040, the American Indian/Alaska Native population showed the highest increase in projected HCC-related mortality rates, which went from 5.46 per 100,000 persons in 2006 to a project increase to 14.71 per 100,000 persons.
IN PRACTICE:
“HCC mortality was projected to continue increasing in the US, primarily due to rising rates of deaths attributable to ALD and MASLD,” the authors wrote.
This “study highlights the importance of addressing these conditions to decrease the burden of liver disease and liver disease mortality in the future,” Emad Qayed, MD, MPH, Emory University School of Medicine, Atlanta, wrote in an accompanying editorial.
SOURCE:
The study was led by Sikai Qiu, MM, The Second Affiliated Hospital of Xi’an Jiaotong University, Xi’an, China, and was published online in JAMA Network Open.
LIMITATIONS:
The National Vital Statistics System database used in this study captured only mortality data without access to detailed clinical records or individual medical histories. Researchers could not analyze socioeconomic factors or individual-level risk factors owing to data anonymization requirements. Additionally, the inclusion of the COVID-19 pandemic period could have influenced observed trends and reliability of future projections.
DISCLOSURES:
This study was supported by grants from the National Natural Science Foundation of China. Several authors reported receiving consulting fees, speaking fees, or research support from various sources.
This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.
TOPLINE:
Alcohol-associated liver disease (ALD) will likely become the leading cause of HCC-related mortality by 2026, and metabolic dysfunction–associated steatotic liver disease (MASLD) is projected to become the second leading cause by 2032, a new analysis found.
METHODOLOGY:
- HCC accounts for 75%-85% of primary liver cancers and most liver cancer deaths. Researchers have observed an upward trend in the incidence of and mortality from HCC in the past 2 decades.
- This cross-sectional study analyzed 188,280 HCC-related deaths among adults aged 25 and older to determine trends in mortality rates and project age-standardized mortality rates through 2040. Data came from the National Vital Statistics System database from 2006 to 2022.
- Researchers stratified mortality data by etiology of liver disease (ALD, hepatitis B virus, hepatitis C virus, and MASLD), age groups (25-64 or 65 and older years), sex, and race/ethnicity.
- Demographic data showed that 77.4% of deaths occurred in men, 55.6% in individuals aged 65 years or older, and 62.3% in White individuals.
TAKEAWAY:
- Overall, the age-standardized mortality rate for HCC-related deaths increased from 3.65 per 100,000 persons in 2006 to 5.03 in 2022 and was projected to increase to 6.39 per 100,000 persons by 2040.
- Sex- and age-related disparities were substantial. Men had much higher rates of HCC-related mortality than women (8.15 vs 2.33 per 100,000 persons), with a projected rate among men of 9.78 per 100,000 persons by 2040. HCC-related mortality rates for people aged 65 years or older were 10 times higher than for those aged 25-64 years (18.37 vs 1.79 per 100,000 persons) in 2022 and was projected to reach 32.81 per 100,000 persons by 2040 in the older group.
- Although hepatitis C virus–related deaths were projected to decline from 0.69 to 0.03 per 100,000 persons by 2034, ALD- and MASLD-related deaths showed increasing trends, with both projected to become the two leading causes of HCC-related mortality in the next few years.
- Racial disparities were also evident. By 2040, the American Indian/Alaska Native population showed the highest increase in projected HCC-related mortality rates, which went from 5.46 per 100,000 persons in 2006 to a project increase to 14.71 per 100,000 persons.
IN PRACTICE:
“HCC mortality was projected to continue increasing in the US, primarily due to rising rates of deaths attributable to ALD and MASLD,” the authors wrote.
This “study highlights the importance of addressing these conditions to decrease the burden of liver disease and liver disease mortality in the future,” Emad Qayed, MD, MPH, Emory University School of Medicine, Atlanta, wrote in an accompanying editorial.
SOURCE:
The study was led by Sikai Qiu, MM, The Second Affiliated Hospital of Xi’an Jiaotong University, Xi’an, China, and was published online in JAMA Network Open.
LIMITATIONS:
The National Vital Statistics System database used in this study captured only mortality data without access to detailed clinical records or individual medical histories. Researchers could not analyze socioeconomic factors or individual-level risk factors owing to data anonymization requirements. Additionally, the inclusion of the COVID-19 pandemic period could have influenced observed trends and reliability of future projections.
DISCLOSURES:
This study was supported by grants from the National Natural Science Foundation of China. Several authors reported receiving consulting fees, speaking fees, or research support from various sources.
This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.
TOPLINE:
Alcohol-associated liver disease (ALD) will likely become the leading cause of HCC-related mortality by 2026, and metabolic dysfunction–associated steatotic liver disease (MASLD) is projected to become the second leading cause by 2032, a new analysis found.
METHODOLOGY:
- HCC accounts for 75%-85% of primary liver cancers and most liver cancer deaths. Researchers have observed an upward trend in the incidence of and mortality from HCC in the past 2 decades.
- This cross-sectional study analyzed 188,280 HCC-related deaths among adults aged 25 and older to determine trends in mortality rates and project age-standardized mortality rates through 2040. Data came from the National Vital Statistics System database from 2006 to 2022.
- Researchers stratified mortality data by etiology of liver disease (ALD, hepatitis B virus, hepatitis C virus, and MASLD), age groups (25-64 or 65 and older years), sex, and race/ethnicity.
- Demographic data showed that 77.4% of deaths occurred in men, 55.6% in individuals aged 65 years or older, and 62.3% in White individuals.
TAKEAWAY:
- Overall, the age-standardized mortality rate for HCC-related deaths increased from 3.65 per 100,000 persons in 2006 to 5.03 in 2022 and was projected to increase to 6.39 per 100,000 persons by 2040.
- Sex- and age-related disparities were substantial. Men had much higher rates of HCC-related mortality than women (8.15 vs 2.33 per 100,000 persons), with a projected rate among men of 9.78 per 100,000 persons by 2040. HCC-related mortality rates for people aged 65 years or older were 10 times higher than for those aged 25-64 years (18.37 vs 1.79 per 100,000 persons) in 2022 and was projected to reach 32.81 per 100,000 persons by 2040 in the older group.
- Although hepatitis C virus–related deaths were projected to decline from 0.69 to 0.03 per 100,000 persons by 2034, ALD- and MASLD-related deaths showed increasing trends, with both projected to become the two leading causes of HCC-related mortality in the next few years.
- Racial disparities were also evident. By 2040, the American Indian/Alaska Native population showed the highest increase in projected HCC-related mortality rates, which went from 5.46 per 100,000 persons in 2006 to a project increase to 14.71 per 100,000 persons.
IN PRACTICE:
“HCC mortality was projected to continue increasing in the US, primarily due to rising rates of deaths attributable to ALD and MASLD,” the authors wrote.
This “study highlights the importance of addressing these conditions to decrease the burden of liver disease and liver disease mortality in the future,” Emad Qayed, MD, MPH, Emory University School of Medicine, Atlanta, wrote in an accompanying editorial.
SOURCE:
The study was led by Sikai Qiu, MM, The Second Affiliated Hospital of Xi’an Jiaotong University, Xi’an, China, and was published online in JAMA Network Open.
LIMITATIONS:
The National Vital Statistics System database used in this study captured only mortality data without access to detailed clinical records or individual medical histories. Researchers could not analyze socioeconomic factors or individual-level risk factors owing to data anonymization requirements. Additionally, the inclusion of the COVID-19 pandemic period could have influenced observed trends and reliability of future projections.
DISCLOSURES:
This study was supported by grants from the National Natural Science Foundation of China. Several authors reported receiving consulting fees, speaking fees, or research support from various sources.
This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.
VA Launches New Campaign to Attract More Veterans to Health Care
A new US Department of Veterans Affairs (VA) outreach campaign is encouraging all eligible veterans to enroll in VA health care, aiming to connect the roughly 1 million unenrolled veterans to care.
The campaign was prompted following reports of concerns from veterans about health issues—including mental health hurdles and thoughts of suicide—potentially related to repeated low-level artillery blasts, improvised explosive devices, missile launches, heavy fire, and other blast exposures.
Veterans enrolled in VA health care have access to specialty screenings and services to address issues related to blast exposure. Those who served in Vietnam, the Gulf War, Iraq, Afghanistan, and other specific locations are eligible for these benefits based on their deployments. They do not need to have any health conditions specifically associated with their service to be eligible.
“We take veteran concerns about repeated blast exposure very seriously, and we are studying this matter urgently to learn more about potential health impacts,” VA Secretary Denis McDonough said. “While we do that, we don’t want veterans to wait—they should enroll in VA health care today to get full access to primary care, mental health care, regular screenings, specialty care, and more. That’s what this outreach effort is all about: getting veterans in our care, because veterans who come to VA are proven to do better.”
The campaign will consist of text messages and emails sent directly to veterans, in addition to thousands of nationwide events, advertising, and social media campaigns. It is the latest effort to appeal to more veterans and is part of the largest outreach campaign in VA history, which began when President Joseph R. Biden signed the PACT Act into law in 2022. As a result > 835,000 veterans have enrolled in VA health care (a 37% increase), > 900,000 veterans have upgraded their priority groups, making them eligible for health care with fewer copays (a record), and > 4.4 million veterans and survivors have applied for disability compensation benefits (another record).
Increased enrollment benefits not only the individuals enrolled in VA health care, but those who come after.
"[W]e are constantly looking for ways to improve that care as science and research tells us about new concerns," said VA Under Secretary for Health Shereef Elnahal, MD. "The more veterans who enroll, the more we can learn about the impact of blast exposure—and the better care we can ultimately provide those who served."
A new US Department of Veterans Affairs (VA) outreach campaign is encouraging all eligible veterans to enroll in VA health care, aiming to connect the roughly 1 million unenrolled veterans to care.
The campaign was prompted following reports of concerns from veterans about health issues—including mental health hurdles and thoughts of suicide—potentially related to repeated low-level artillery blasts, improvised explosive devices, missile launches, heavy fire, and other blast exposures.
Veterans enrolled in VA health care have access to specialty screenings and services to address issues related to blast exposure. Those who served in Vietnam, the Gulf War, Iraq, Afghanistan, and other specific locations are eligible for these benefits based on their deployments. They do not need to have any health conditions specifically associated with their service to be eligible.
“We take veteran concerns about repeated blast exposure very seriously, and we are studying this matter urgently to learn more about potential health impacts,” VA Secretary Denis McDonough said. “While we do that, we don’t want veterans to wait—they should enroll in VA health care today to get full access to primary care, mental health care, regular screenings, specialty care, and more. That’s what this outreach effort is all about: getting veterans in our care, because veterans who come to VA are proven to do better.”
The campaign will consist of text messages and emails sent directly to veterans, in addition to thousands of nationwide events, advertising, and social media campaigns. It is the latest effort to appeal to more veterans and is part of the largest outreach campaign in VA history, which began when President Joseph R. Biden signed the PACT Act into law in 2022. As a result > 835,000 veterans have enrolled in VA health care (a 37% increase), > 900,000 veterans have upgraded their priority groups, making them eligible for health care with fewer copays (a record), and > 4.4 million veterans and survivors have applied for disability compensation benefits (another record).
Increased enrollment benefits not only the individuals enrolled in VA health care, but those who come after.
"[W]e are constantly looking for ways to improve that care as science and research tells us about new concerns," said VA Under Secretary for Health Shereef Elnahal, MD. "The more veterans who enroll, the more we can learn about the impact of blast exposure—and the better care we can ultimately provide those who served."
A new US Department of Veterans Affairs (VA) outreach campaign is encouraging all eligible veterans to enroll in VA health care, aiming to connect the roughly 1 million unenrolled veterans to care.
The campaign was prompted following reports of concerns from veterans about health issues—including mental health hurdles and thoughts of suicide—potentially related to repeated low-level artillery blasts, improvised explosive devices, missile launches, heavy fire, and other blast exposures.
Veterans enrolled in VA health care have access to specialty screenings and services to address issues related to blast exposure. Those who served in Vietnam, the Gulf War, Iraq, Afghanistan, and other specific locations are eligible for these benefits based on their deployments. They do not need to have any health conditions specifically associated with their service to be eligible.
“We take veteran concerns about repeated blast exposure very seriously, and we are studying this matter urgently to learn more about potential health impacts,” VA Secretary Denis McDonough said. “While we do that, we don’t want veterans to wait—they should enroll in VA health care today to get full access to primary care, mental health care, regular screenings, specialty care, and more. That’s what this outreach effort is all about: getting veterans in our care, because veterans who come to VA are proven to do better.”
The campaign will consist of text messages and emails sent directly to veterans, in addition to thousands of nationwide events, advertising, and social media campaigns. It is the latest effort to appeal to more veterans and is part of the largest outreach campaign in VA history, which began when President Joseph R. Biden signed the PACT Act into law in 2022. As a result > 835,000 veterans have enrolled in VA health care (a 37% increase), > 900,000 veterans have upgraded their priority groups, making them eligible for health care with fewer copays (a record), and > 4.4 million veterans and survivors have applied for disability compensation benefits (another record).
Increased enrollment benefits not only the individuals enrolled in VA health care, but those who come after.
"[W]e are constantly looking for ways to improve that care as science and research tells us about new concerns," said VA Under Secretary for Health Shereef Elnahal, MD. "The more veterans who enroll, the more we can learn about the impact of blast exposure—and the better care we can ultimately provide those who served."
Physician Attitudes About Veterans Affairs Video Connect Encounters
Physician Attitudes About Veterans Affairs Video Connect Encounters
Prior to the COVID-19 pandemic, health care systems had been increasingly focused on expanding care delivery through clinical video telehealth (CVT) services.1-3 These modalities offer clinicians and patients opportunities to interact without needing face-to-face visits. CVT services offer significant advantages to patients who encounter challenges accessing traditional face-to-face services, including those living in rural or underserved areas, individuals with mobility limitations, and those with difficulty attending appointments due to work or caregiving commitments.4 The COVID-19 pandemic accelerated the expansion of CVT services to mitigate the spread of the virus.1
Despite its evident advantages, widespread adoption of CVT has encountered resistance.2 Physicians have frequently expressed concerns about the reliability and functionality of CVT platforms for scheduled encounters and frustration with inadequate training.4-6 Additionally, there is a lack trust in the technology, as physicians are unfamiliar with reimbursement or workload capture associated with CVT. Physicians have concerns that telecommunication may diminish the intangible aspects of the “art of medicine.”4 As a result, the implementation of telehealth services has been inconsistent, with successful adoption limited to specific medical and surgical specialties.4 Only recently have entire departments within major health care systems expressed interest in providing comprehensive CVT services in response to the challenges posed by the COVID-19 pandemic.4
The Veterans Health Administration (VHA) of the US Department of Veterans Affairs (VA) provides an appropriate setting for assessing clinician perceptions of telehealth services. Since 2003, the VHA has significantly expanded CVT services to eligible veterans and has used the VA Video Connect (VVC) platform since 2018.7-10 Through VVC, VA staff and clinicians may schedule video visits with patients, meet with patients through virtual face-to-face interaction, and share relevant laboratory results and imaging through screen sharing. Prior research has shown increased accessibility to care through VVC. For example, a single-site study demonstrated that VVC implementation for delivering psychotherapies significantly increased CVT encounters from 15% to 85% among veterans with anxiety and/or depression.11
The VA New Mexico Healthcare System (VANMHCS) serves a high volume of veterans living in remote and rural regions and significantly increased its use of CVT during the COVID-19 pandemic to reduce in-person visits. Expectedly, this was met with a variety of challenges. Herein, we sought to assess physician perspectives, concerns, and attitudes toward VVC via semistructured interviews. Our hypothesis was that VA physicians may feel uncomfortable with video encounters but recognize the growing importance of such practices providing specialty care to veterans in rural areas.
METHODS
A semistructured interview protocol was created following discussions with physicians from the VANMHCS Medicine Service. Questions were constructed to assess the following domains: overarching views of video telehealth, perceptions of various applications for conducting VVC encounters, and barriers to the broad implementation of video telehealth. A qualitative investigation specialist aided with question development. Two pilot interviews were conducted prior to performing the interviews with the recruited participants to evaluate the quality and delivery of questions.
All VANMHCS physicians who provided outpatient care within the Department of Medicine and had completed ≥ 1 VVC encounter were eligible to participate. Invitations were disseminated via email, and follow-up emails to encourage participation were sent periodically for 2 months following the initial request. Union approval was obtained to interview employees for a research study. In total, 64 physicians were invited and 13 (20%) chose to participate. As the study did not involve assessing medical interventions among patients, a waiver of informed consent was granted by the VANMHCS Institutional Review Board. Physicians who participated in this study were informed that their responses would be used for reporting purposes and could be rescinded at any time.
Data Analysis
Semistructured interviews were conducted by a single interviewer and recorded using Microsoft Teams. The interviews took place between February 2021 and December 2021 and lasted 5 to 15 minutes, with a mean duration of 9 minutes. Verbal informed consent was obtained from all participants before the interviews. Interviewees were encouraged to expand on their responses to structured questions by recounting past experiences with VVC. Recorded audio was additionally transcribed via Microsoft Teams, and the research team reviewed the transcriptions to ensure accuracy.
The tracking and coding of responses to interview questions were conducted using Microsoft Excel. Initially, 5 transcripts were reviewed and responses were assessed by 2 study team members through open coding. All team members examined the 5 coded transcripts to identify differences and reach a consensus for any discrepancies. Based on recommendations from all team members regarding nuanced excerpts of transcripts, 1 study team member coded the remaining interviews. Thematic analysis was subsequently conducted according to the method described by Braun and Clarke.12 Themes were developed both deductively and inductively by reviewing the direct responses to interview questions and identifying emerging patterns of data, respectively. Indicative quotes representing each theme were carefully chosen for reporting.
RESULTS
Thirteen interviews were conducted and 9 participants (69%) were female. Participating physicians included 3 internal medicine/primary care physicians (23%), 2 nephrologists (15%), and 1 (8%) from cardiology, endocrinology, hematology, infectious diseases, palliative care, critical care, pulmonology, and sleep medicine. Years of post training experience among physicians ranged from 1 to 9 years (n = 5, 38%), 10 to 19 years (n = 3, 23%), and . 20 years (n = 5, 38%). Seven participants (54%) had conducted ≥ 5 VVC visits, with 1 physician completing > 50 video visits (Table).

Using open coding and a deductive approach to thematic analysis, 5 themes were identified: (1) VVC software and internet connection issues affected implementation; (2) patient technological literacy affected veteran and physician comfort with VVC; (3) integration of supportive measures was desired; (4) CVT services may increasingly be used to enhance access to care; and (5) in-person encounters afforded unique advantages over CVT. Illustrative quotes from physicians that reflect these themes can be found in the Appendix.
Theme 1: VVC software and internet connection issues affected its implementation. Most participants expressed concern about the technical challenges with VVC. Interviewees cited inconsistencies for both patients and physicians receiving emails with links to join VVC visits, which should be generated when appointments are scheduled. Some physicians were unaware of scheduled VVC visits until the day of the appointment and only received the link via email. Such issues appeared to occur regardless whether the physicians or support staff scheduled the encounter. Poor video and audio quality was also cited as significant barriers to successful VVC visits and were often not resolvable through troubleshooting efforts by physicians, patients, or support personnel. Given the limited time allotted to each patient encounter, such issues could significantly impact the physician’s ability to remain on schedule. Moreover, connectivity problems led to significant lapses, delays in audio and video transmission, and complete disconnections from the VVC encounter. This was a significant concern for participants, given the rural nature of New Mexico and the large geographical gaps in internet service throughout the state.
Theme 2: Patient technological literacy affected veteran and physician comfort with VVC. Successful VVC appointments require high-speed Internet and compatible hardware. Physicians indicated that some patients reported difficulties with critical steps in the process, such as logging into the VVC platform or ensuring their microphones and cameras were active. Physicians also expressed concern about older veterans’ ability to utilize electronic devices, noting they may generally be less technology savvy. Additionally, physicians reported that despite offering the option of a virtual visit, many veterans preferred in-person visits, regardless of the drive time required. This appeared related to a fear of using the technology, which led veterans to believe that virtual visits do not provide the same quality of care as in-person visits.
Theme 3: Integration of supportive measures is desired. Interviewees felt that integrated VVC technical assistance and technology literacy education were imperative. First, training the patient or the patient’s caregiver on how to complete a VVC encounter using the preferred device and the VVC platform would be beneficial. Second, education to inform physicians about common troubleshooting issues could help streamline VVC encounters. Third, managing a VVC encounter similarly to standard in-person visits could allow for better patient and physician experience. For example, physicians suggested that a medical assistant or a nurse triage the patient, take vital signs, and set them up in a room, potentially at a regional VA community based outpatient clinic. Such efforts would also allow patients to receive specialty care in remote areas where only primary care is generally offered. Support staff could assist with technological issues, such as setting up the VVC encounter and addressing potential problems before the physician joins the encounter, thereby preventing delays in patient care. Finally, physicians felt that designating a day solely for CVT visits would help prevent disruption in care with in-person visits.
Theme 4: CVT services may increasingly be used to enhance access to care. Physicians felt that VVC would help patients encountering obstacles in accessing conventional in person services, including patients in rural and underserved areas, with disabilities, or with scheduling challenges.4 Patients with chronic conditions might drive the use of virtual visits, as many of these patients are already accustomed to remote medical monitoring. Data from devices such as scales and continuous glucose monitors can be easily reviewed during VVC visits. Second, video encounters facilitate closer monitoring that some patients might otherwise skip due to significant travel barriers, especially in a rural state like New Mexico. Lastly, VVC may be more efficient than in person visits as they eliminate the need for lengthy parking, checking in, and checking out processes. Thus, if technological issues are resolved, a typical physician’s day in the clinic may be more efficient with virtual visits.
Theme 5: In-person encounters afforded unique advantages over CVT. Some physicians felt in-person visits still offer unique advantages. They opined that the selection of appropriate candidates for CVT is critical. Patients requiring a physical examination should be scheduled for in person visits. For example, patients with advanced chronic kidney disease who require accurate volume status assessment or patients who have recently undergone surgery and need detailed wound inspection should be seen in the clinic. In-person visits may also be preferable for patients with recurrent admissions, or those whose condition is difficult to assess; accurate assessments of such patients may help prevent readmissions. Finally, many patients are more comfortable and satisfied with in-person visits, which are perceived as a more standard or traditional process. Respondents noted that some patients felt physicians may not focus as much attention during a VVC visit as they do during in-person visits. There were also concerns that some patients feel more motivation to come to in-person visits, as they see the VA as a place to interact with other veterans and staff with whom they are familiar and comfortable.
DISCUSSION
VANMHCS physicians, which serves veterans across an expansive territory ranging from Southern Colorado to West Texas. About 4.6 million veterans reside in rural regions, constituting roughly 25% of the total veteran population, a pattern mirrored in New Mexico.13 Medicine Service physicians agreed on a number of themes: VVC user-interface issues may affect its use and effectiveness, technological literacy was important for both patients and health care staff, technical support staff roles before and during VVC visits should be standardized, CVT is likely to increase health care delivery, and in-person encounters are preferred for many patients.
This is the first study to qualitatively evaluate a diverse group of physicians at a VA medical center incorporating CVT services across specialties. A few related qualitative studies have been conducted external to VHA, generally evaluating clinicians within a single specialty. Kalicki and colleagues surveyed 16 physicians working at a large home-based primary care program in New York City between April and June 2020 to identify and explore barriers to telehealth among homebound older adults. Similarly to our study, physicians noted that many patients required assistance (family members or caregivers) with the visit, either due to technological literacy issues or medical conditions like dementia.14
Heyer and colleagues surveyed 29 oncologists at an urban academic center prior to the COVID-19 pandemic. Similar to our observations, the oncologists said telemedicine helped eliminate travel as a barrier to health care. Heyer and colleagues noted difficulty for oncologists in performing virtual physical examinations, despite training. This group did note the benefits when being selective as to which clinical issues they would handle virtually vs in person.15
Budhwani and colleagues reported that mental health professionals in an academic setting cited difficulty establishing therapeutic relationships via telehealth and felt that this affected quality of care.16 While this was not a topic during our interviews, it is reasonable to question how potentially missed nonverbal cues may impact patient assessments.
Notably, technological issues were common among all reviewed studies. These ranged from internet connectivity issues to necessary electronic devices. As mentioned, these barriers are more prevalent in rural states like New Mexico.
Limitations
All participants in this study were Medicine Service physicians of a single VA health care system, which may limit generalizability. Many of our respondents were female (69%), compared with 39.2% of active internal medicine physicians and therefore may not be representative.17 Nearly one-half of our participants only completed 1 to 4 VVC encounters, which may have contributed to the emergence of a common theme regarding technological issues. Physicians with more experience with CVT services may be more skilled at troubleshooting technological issues that arise during visits.
CONCLUSIONS
Our study, conducted with VANMHCS physicians, illuminated 5 key themes influencing the use and implementation of video encounters: technological issues, technological literacy, a desire for integrated support measures, perceived future growth of video telehealth, and the unique advantages of in-person visits. Addressing technological barriers and providing more extensive training may streamline CVT use. However, it is vital to recognize the unique benefits of in-person visits and consider the benefits of each modality along with patient preferences when selecting the best care venue. As health care evolves, better understanding and acting upon these themes will optimize telehealth services, particularly in rural areas. Future research should involve patients and other health care team members to further explore strategies for effective CVT service integration.
Appendix

- Monaghesh E, Hajizadeh A. The role of telehealth during covid-19 outbreak: a systematic review based on current evidence. BMC Public Health. 2020;20(1):1193. doi:10.1186/s12889-020-09301-4
- Scott Kruse C, Karem P, Shifflett K, Vegi L, Ravi K, Brooks M. Evaluating barriers to adopting telemedicine worldwide: a systematic review. J Telemed Telecare. 2018;24(1):4-12. doi:10.1177/1357633X16674087
- Bashshur RL, Howell JD, Krupinski EA, Harms KM, Bashshur N, Doarn CR. The empirical foundations of telemedicine interventions in primary care. Telemed J E Health. 2016;22(5):342-375. doi:10.1089/tmj.2016.0045
- Yellowlees P, Nakagawa K, Pakyurek M, Hanson A, Elder J, Kales HC. Rapid conversion of an outpatient psychiatric clinic to a 100% virtual telepsychiatry clinic in response to covid-19. Pyschiatr Serv. 2020;71(7):749-752. doi:10.1176/appi.ps.202000230
- Hailey D, Ohinmaa A, Roine R. Study quality and evidence of benefit in recent assessments of telemedicine. J Telemed Telecare. 2004;10(6):318-324. doi:10.1258/1357633042602053
- Osuji TA, Macias M, McMullen C, et al. Clinician perspectives on implementing video visits in home-based palliative care. Palliat Med Rep. 2020;1(1):221-226. doi:10.1089/pmr.2020.0074
- Darkins A. The growth of telehealth services in the Veterans Health Administration between 1994 and 2014: a study in the diffusion of innovation. Telemed J E Health. 2014;20(9):761-768. doi:10.1089/tmj.2014.0143
- Dorsey ER, Topol EJ. State of telehealth. N Engl J Med. 2016;375(2):154-161. doi:10.1056/nejmra1601705
- Alexander NB, Phillips K, Wagner-Felkey J, et al. Team VA video connect (VVC) to optimize mobility and physical activity in post-hospital discharge older veterans: Baseline assessment. BMC Geriatr. 2021;21(1):502. doi:10.1186/s12877-021-02454-w
- Padala KP, Wilson KB, Gauss CH, Stovall JD, Padala PR. VA video connect for clinical care in older adults in a rural state during the covid-19 pandemic: cross-sectional study. J Med Internet Res. 2020;22(9)e21561. doi:10.2196/21561
- Myers US, Coulon S, Knies K, et al. Lessons learned in implementing VA video connect for evidence-based psychotherapies for anxiety and depression in the veterans healthcare administration. J Technol Behav Sci. 2020;6(2):320-326. doi:10.1007/s41347-020-00161-8
- Braun V, Clarke V. Using thematic analysis in psychology. Qual Res Psychol. 2006;3(2):77-101. doi:10.1191/1478088706qp063oa
- US Department of Veterans Affairs, National Center for Feterans Analysis and Statistics. Accessed September 18, 2024. www.va.gov/vetdata/report.asp
- Kalicki AV, Moody KA, Franzosa E, Gliatto PM, Ornstein KA. Barriers to telehealth access among homebound older adults. J Am Geriatr Soc. 2021;69(9):2404-2411. doi:10.1111/jgs.17163
- Heyer A, Granberg RE, Rising KL, Binder AF, Gentsch AT, Handley NR. Medical oncology professionals’ perceptions of telehealth video visits. JAMA Netw Open. 2021;4(1) e2033967. doi:10.1001/jamanetworkopen.2020.33967
- Budhwani S, Fujioka JK, Chu C, et al. Delivering mental health care virtually during the COVID-19 pandemic: qualitative evaluation of provider experiences in a scaled context. JMIR Form Res. 2021;5(9)e30280. doi:10.2196/30280
- Association of American Medical Colleges. Active physicians by sex and specialty, 2021. AAMC. Accessed September 18, 2024. https://www.aamc.org/data-reports/workforce/data/active-physicians-sex-specialty-2021
Prior to the COVID-19 pandemic, health care systems had been increasingly focused on expanding care delivery through clinical video telehealth (CVT) services.1-3 These modalities offer clinicians and patients opportunities to interact without needing face-to-face visits. CVT services offer significant advantages to patients who encounter challenges accessing traditional face-to-face services, including those living in rural or underserved areas, individuals with mobility limitations, and those with difficulty attending appointments due to work or caregiving commitments.4 The COVID-19 pandemic accelerated the expansion of CVT services to mitigate the spread of the virus.1
Despite its evident advantages, widespread adoption of CVT has encountered resistance.2 Physicians have frequently expressed concerns about the reliability and functionality of CVT platforms for scheduled encounters and frustration with inadequate training.4-6 Additionally, there is a lack trust in the technology, as physicians are unfamiliar with reimbursement or workload capture associated with CVT. Physicians have concerns that telecommunication may diminish the intangible aspects of the “art of medicine.”4 As a result, the implementation of telehealth services has been inconsistent, with successful adoption limited to specific medical and surgical specialties.4 Only recently have entire departments within major health care systems expressed interest in providing comprehensive CVT services in response to the challenges posed by the COVID-19 pandemic.4
The Veterans Health Administration (VHA) of the US Department of Veterans Affairs (VA) provides an appropriate setting for assessing clinician perceptions of telehealth services. Since 2003, the VHA has significantly expanded CVT services to eligible veterans and has used the VA Video Connect (VVC) platform since 2018.7-10 Through VVC, VA staff and clinicians may schedule video visits with patients, meet with patients through virtual face-to-face interaction, and share relevant laboratory results and imaging through screen sharing. Prior research has shown increased accessibility to care through VVC. For example, a single-site study demonstrated that VVC implementation for delivering psychotherapies significantly increased CVT encounters from 15% to 85% among veterans with anxiety and/or depression.11
The VA New Mexico Healthcare System (VANMHCS) serves a high volume of veterans living in remote and rural regions and significantly increased its use of CVT during the COVID-19 pandemic to reduce in-person visits. Expectedly, this was met with a variety of challenges. Herein, we sought to assess physician perspectives, concerns, and attitudes toward VVC via semistructured interviews. Our hypothesis was that VA physicians may feel uncomfortable with video encounters but recognize the growing importance of such practices providing specialty care to veterans in rural areas.
METHODS
A semistructured interview protocol was created following discussions with physicians from the VANMHCS Medicine Service. Questions were constructed to assess the following domains: overarching views of video telehealth, perceptions of various applications for conducting VVC encounters, and barriers to the broad implementation of video telehealth. A qualitative investigation specialist aided with question development. Two pilot interviews were conducted prior to performing the interviews with the recruited participants to evaluate the quality and delivery of questions.
All VANMHCS physicians who provided outpatient care within the Department of Medicine and had completed ≥ 1 VVC encounter were eligible to participate. Invitations were disseminated via email, and follow-up emails to encourage participation were sent periodically for 2 months following the initial request. Union approval was obtained to interview employees for a research study. In total, 64 physicians were invited and 13 (20%) chose to participate. As the study did not involve assessing medical interventions among patients, a waiver of informed consent was granted by the VANMHCS Institutional Review Board. Physicians who participated in this study were informed that their responses would be used for reporting purposes and could be rescinded at any time.
Data Analysis
Semistructured interviews were conducted by a single interviewer and recorded using Microsoft Teams. The interviews took place between February 2021 and December 2021 and lasted 5 to 15 minutes, with a mean duration of 9 minutes. Verbal informed consent was obtained from all participants before the interviews. Interviewees were encouraged to expand on their responses to structured questions by recounting past experiences with VVC. Recorded audio was additionally transcribed via Microsoft Teams, and the research team reviewed the transcriptions to ensure accuracy.
The tracking and coding of responses to interview questions were conducted using Microsoft Excel. Initially, 5 transcripts were reviewed and responses were assessed by 2 study team members through open coding. All team members examined the 5 coded transcripts to identify differences and reach a consensus for any discrepancies. Based on recommendations from all team members regarding nuanced excerpts of transcripts, 1 study team member coded the remaining interviews. Thematic analysis was subsequently conducted according to the method described by Braun and Clarke.12 Themes were developed both deductively and inductively by reviewing the direct responses to interview questions and identifying emerging patterns of data, respectively. Indicative quotes representing each theme were carefully chosen for reporting.
RESULTS
Thirteen interviews were conducted and 9 participants (69%) were female. Participating physicians included 3 internal medicine/primary care physicians (23%), 2 nephrologists (15%), and 1 (8%) from cardiology, endocrinology, hematology, infectious diseases, palliative care, critical care, pulmonology, and sleep medicine. Years of post training experience among physicians ranged from 1 to 9 years (n = 5, 38%), 10 to 19 years (n = 3, 23%), and . 20 years (n = 5, 38%). Seven participants (54%) had conducted ≥ 5 VVC visits, with 1 physician completing > 50 video visits (Table).

Using open coding and a deductive approach to thematic analysis, 5 themes were identified: (1) VVC software and internet connection issues affected implementation; (2) patient technological literacy affected veteran and physician comfort with VVC; (3) integration of supportive measures was desired; (4) CVT services may increasingly be used to enhance access to care; and (5) in-person encounters afforded unique advantages over CVT. Illustrative quotes from physicians that reflect these themes can be found in the Appendix.
Theme 1: VVC software and internet connection issues affected its implementation. Most participants expressed concern about the technical challenges with VVC. Interviewees cited inconsistencies for both patients and physicians receiving emails with links to join VVC visits, which should be generated when appointments are scheduled. Some physicians were unaware of scheduled VVC visits until the day of the appointment and only received the link via email. Such issues appeared to occur regardless whether the physicians or support staff scheduled the encounter. Poor video and audio quality was also cited as significant barriers to successful VVC visits and were often not resolvable through troubleshooting efforts by physicians, patients, or support personnel. Given the limited time allotted to each patient encounter, such issues could significantly impact the physician’s ability to remain on schedule. Moreover, connectivity problems led to significant lapses, delays in audio and video transmission, and complete disconnections from the VVC encounter. This was a significant concern for participants, given the rural nature of New Mexico and the large geographical gaps in internet service throughout the state.
Theme 2: Patient technological literacy affected veteran and physician comfort with VVC. Successful VVC appointments require high-speed Internet and compatible hardware. Physicians indicated that some patients reported difficulties with critical steps in the process, such as logging into the VVC platform or ensuring their microphones and cameras were active. Physicians also expressed concern about older veterans’ ability to utilize electronic devices, noting they may generally be less technology savvy. Additionally, physicians reported that despite offering the option of a virtual visit, many veterans preferred in-person visits, regardless of the drive time required. This appeared related to a fear of using the technology, which led veterans to believe that virtual visits do not provide the same quality of care as in-person visits.
Theme 3: Integration of supportive measures is desired. Interviewees felt that integrated VVC technical assistance and technology literacy education were imperative. First, training the patient or the patient’s caregiver on how to complete a VVC encounter using the preferred device and the VVC platform would be beneficial. Second, education to inform physicians about common troubleshooting issues could help streamline VVC encounters. Third, managing a VVC encounter similarly to standard in-person visits could allow for better patient and physician experience. For example, physicians suggested that a medical assistant or a nurse triage the patient, take vital signs, and set them up in a room, potentially at a regional VA community based outpatient clinic. Such efforts would also allow patients to receive specialty care in remote areas where only primary care is generally offered. Support staff could assist with technological issues, such as setting up the VVC encounter and addressing potential problems before the physician joins the encounter, thereby preventing delays in patient care. Finally, physicians felt that designating a day solely for CVT visits would help prevent disruption in care with in-person visits.
Theme 4: CVT services may increasingly be used to enhance access to care. Physicians felt that VVC would help patients encountering obstacles in accessing conventional in person services, including patients in rural and underserved areas, with disabilities, or with scheduling challenges.4 Patients with chronic conditions might drive the use of virtual visits, as many of these patients are already accustomed to remote medical monitoring. Data from devices such as scales and continuous glucose monitors can be easily reviewed during VVC visits. Second, video encounters facilitate closer monitoring that some patients might otherwise skip due to significant travel barriers, especially in a rural state like New Mexico. Lastly, VVC may be more efficient than in person visits as they eliminate the need for lengthy parking, checking in, and checking out processes. Thus, if technological issues are resolved, a typical physician’s day in the clinic may be more efficient with virtual visits.
Theme 5: In-person encounters afforded unique advantages over CVT. Some physicians felt in-person visits still offer unique advantages. They opined that the selection of appropriate candidates for CVT is critical. Patients requiring a physical examination should be scheduled for in person visits. For example, patients with advanced chronic kidney disease who require accurate volume status assessment or patients who have recently undergone surgery and need detailed wound inspection should be seen in the clinic. In-person visits may also be preferable for patients with recurrent admissions, or those whose condition is difficult to assess; accurate assessments of such patients may help prevent readmissions. Finally, many patients are more comfortable and satisfied with in-person visits, which are perceived as a more standard or traditional process. Respondents noted that some patients felt physicians may not focus as much attention during a VVC visit as they do during in-person visits. There were also concerns that some patients feel more motivation to come to in-person visits, as they see the VA as a place to interact with other veterans and staff with whom they are familiar and comfortable.
DISCUSSION
VANMHCS physicians, which serves veterans across an expansive territory ranging from Southern Colorado to West Texas. About 4.6 million veterans reside in rural regions, constituting roughly 25% of the total veteran population, a pattern mirrored in New Mexico.13 Medicine Service physicians agreed on a number of themes: VVC user-interface issues may affect its use and effectiveness, technological literacy was important for both patients and health care staff, technical support staff roles before and during VVC visits should be standardized, CVT is likely to increase health care delivery, and in-person encounters are preferred for many patients.
This is the first study to qualitatively evaluate a diverse group of physicians at a VA medical center incorporating CVT services across specialties. A few related qualitative studies have been conducted external to VHA, generally evaluating clinicians within a single specialty. Kalicki and colleagues surveyed 16 physicians working at a large home-based primary care program in New York City between April and June 2020 to identify and explore barriers to telehealth among homebound older adults. Similarly to our study, physicians noted that many patients required assistance (family members or caregivers) with the visit, either due to technological literacy issues or medical conditions like dementia.14
Heyer and colleagues surveyed 29 oncologists at an urban academic center prior to the COVID-19 pandemic. Similar to our observations, the oncologists said telemedicine helped eliminate travel as a barrier to health care. Heyer and colleagues noted difficulty for oncologists in performing virtual physical examinations, despite training. This group did note the benefits when being selective as to which clinical issues they would handle virtually vs in person.15
Budhwani and colleagues reported that mental health professionals in an academic setting cited difficulty establishing therapeutic relationships via telehealth and felt that this affected quality of care.16 While this was not a topic during our interviews, it is reasonable to question how potentially missed nonverbal cues may impact patient assessments.
Notably, technological issues were common among all reviewed studies. These ranged from internet connectivity issues to necessary electronic devices. As mentioned, these barriers are more prevalent in rural states like New Mexico.
Limitations
All participants in this study were Medicine Service physicians of a single VA health care system, which may limit generalizability. Many of our respondents were female (69%), compared with 39.2% of active internal medicine physicians and therefore may not be representative.17 Nearly one-half of our participants only completed 1 to 4 VVC encounters, which may have contributed to the emergence of a common theme regarding technological issues. Physicians with more experience with CVT services may be more skilled at troubleshooting technological issues that arise during visits.
CONCLUSIONS
Our study, conducted with VANMHCS physicians, illuminated 5 key themes influencing the use and implementation of video encounters: technological issues, technological literacy, a desire for integrated support measures, perceived future growth of video telehealth, and the unique advantages of in-person visits. Addressing technological barriers and providing more extensive training may streamline CVT use. However, it is vital to recognize the unique benefits of in-person visits and consider the benefits of each modality along with patient preferences when selecting the best care venue. As health care evolves, better understanding and acting upon these themes will optimize telehealth services, particularly in rural areas. Future research should involve patients and other health care team members to further explore strategies for effective CVT service integration.
Appendix

Prior to the COVID-19 pandemic, health care systems had been increasingly focused on expanding care delivery through clinical video telehealth (CVT) services.1-3 These modalities offer clinicians and patients opportunities to interact without needing face-to-face visits. CVT services offer significant advantages to patients who encounter challenges accessing traditional face-to-face services, including those living in rural or underserved areas, individuals with mobility limitations, and those with difficulty attending appointments due to work or caregiving commitments.4 The COVID-19 pandemic accelerated the expansion of CVT services to mitigate the spread of the virus.1
Despite its evident advantages, widespread adoption of CVT has encountered resistance.2 Physicians have frequently expressed concerns about the reliability and functionality of CVT platforms for scheduled encounters and frustration with inadequate training.4-6 Additionally, there is a lack trust in the technology, as physicians are unfamiliar with reimbursement or workload capture associated with CVT. Physicians have concerns that telecommunication may diminish the intangible aspects of the “art of medicine.”4 As a result, the implementation of telehealth services has been inconsistent, with successful adoption limited to specific medical and surgical specialties.4 Only recently have entire departments within major health care systems expressed interest in providing comprehensive CVT services in response to the challenges posed by the COVID-19 pandemic.4
The Veterans Health Administration (VHA) of the US Department of Veterans Affairs (VA) provides an appropriate setting for assessing clinician perceptions of telehealth services. Since 2003, the VHA has significantly expanded CVT services to eligible veterans and has used the VA Video Connect (VVC) platform since 2018.7-10 Through VVC, VA staff and clinicians may schedule video visits with patients, meet with patients through virtual face-to-face interaction, and share relevant laboratory results and imaging through screen sharing. Prior research has shown increased accessibility to care through VVC. For example, a single-site study demonstrated that VVC implementation for delivering psychotherapies significantly increased CVT encounters from 15% to 85% among veterans with anxiety and/or depression.11
The VA New Mexico Healthcare System (VANMHCS) serves a high volume of veterans living in remote and rural regions and significantly increased its use of CVT during the COVID-19 pandemic to reduce in-person visits. Expectedly, this was met with a variety of challenges. Herein, we sought to assess physician perspectives, concerns, and attitudes toward VVC via semistructured interviews. Our hypothesis was that VA physicians may feel uncomfortable with video encounters but recognize the growing importance of such practices providing specialty care to veterans in rural areas.
METHODS
A semistructured interview protocol was created following discussions with physicians from the VANMHCS Medicine Service. Questions were constructed to assess the following domains: overarching views of video telehealth, perceptions of various applications for conducting VVC encounters, and barriers to the broad implementation of video telehealth. A qualitative investigation specialist aided with question development. Two pilot interviews were conducted prior to performing the interviews with the recruited participants to evaluate the quality and delivery of questions.
All VANMHCS physicians who provided outpatient care within the Department of Medicine and had completed ≥ 1 VVC encounter were eligible to participate. Invitations were disseminated via email, and follow-up emails to encourage participation were sent periodically for 2 months following the initial request. Union approval was obtained to interview employees for a research study. In total, 64 physicians were invited and 13 (20%) chose to participate. As the study did not involve assessing medical interventions among patients, a waiver of informed consent was granted by the VANMHCS Institutional Review Board. Physicians who participated in this study were informed that their responses would be used for reporting purposes and could be rescinded at any time.
Data Analysis
Semistructured interviews were conducted by a single interviewer and recorded using Microsoft Teams. The interviews took place between February 2021 and December 2021 and lasted 5 to 15 minutes, with a mean duration of 9 minutes. Verbal informed consent was obtained from all participants before the interviews. Interviewees were encouraged to expand on their responses to structured questions by recounting past experiences with VVC. Recorded audio was additionally transcribed via Microsoft Teams, and the research team reviewed the transcriptions to ensure accuracy.
The tracking and coding of responses to interview questions were conducted using Microsoft Excel. Initially, 5 transcripts were reviewed and responses were assessed by 2 study team members through open coding. All team members examined the 5 coded transcripts to identify differences and reach a consensus for any discrepancies. Based on recommendations from all team members regarding nuanced excerpts of transcripts, 1 study team member coded the remaining interviews. Thematic analysis was subsequently conducted according to the method described by Braun and Clarke.12 Themes were developed both deductively and inductively by reviewing the direct responses to interview questions and identifying emerging patterns of data, respectively. Indicative quotes representing each theme were carefully chosen for reporting.
RESULTS
Thirteen interviews were conducted and 9 participants (69%) were female. Participating physicians included 3 internal medicine/primary care physicians (23%), 2 nephrologists (15%), and 1 (8%) from cardiology, endocrinology, hematology, infectious diseases, palliative care, critical care, pulmonology, and sleep medicine. Years of post training experience among physicians ranged from 1 to 9 years (n = 5, 38%), 10 to 19 years (n = 3, 23%), and . 20 years (n = 5, 38%). Seven participants (54%) had conducted ≥ 5 VVC visits, with 1 physician completing > 50 video visits (Table).

Using open coding and a deductive approach to thematic analysis, 5 themes were identified: (1) VVC software and internet connection issues affected implementation; (2) patient technological literacy affected veteran and physician comfort with VVC; (3) integration of supportive measures was desired; (4) CVT services may increasingly be used to enhance access to care; and (5) in-person encounters afforded unique advantages over CVT. Illustrative quotes from physicians that reflect these themes can be found in the Appendix.
Theme 1: VVC software and internet connection issues affected its implementation. Most participants expressed concern about the technical challenges with VVC. Interviewees cited inconsistencies for both patients and physicians receiving emails with links to join VVC visits, which should be generated when appointments are scheduled. Some physicians were unaware of scheduled VVC visits until the day of the appointment and only received the link via email. Such issues appeared to occur regardless whether the physicians or support staff scheduled the encounter. Poor video and audio quality was also cited as significant barriers to successful VVC visits and were often not resolvable through troubleshooting efforts by physicians, patients, or support personnel. Given the limited time allotted to each patient encounter, such issues could significantly impact the physician’s ability to remain on schedule. Moreover, connectivity problems led to significant lapses, delays in audio and video transmission, and complete disconnections from the VVC encounter. This was a significant concern for participants, given the rural nature of New Mexico and the large geographical gaps in internet service throughout the state.
Theme 2: Patient technological literacy affected veteran and physician comfort with VVC. Successful VVC appointments require high-speed Internet and compatible hardware. Physicians indicated that some patients reported difficulties with critical steps in the process, such as logging into the VVC platform or ensuring their microphones and cameras were active. Physicians also expressed concern about older veterans’ ability to utilize electronic devices, noting they may generally be less technology savvy. Additionally, physicians reported that despite offering the option of a virtual visit, many veterans preferred in-person visits, regardless of the drive time required. This appeared related to a fear of using the technology, which led veterans to believe that virtual visits do not provide the same quality of care as in-person visits.
Theme 3: Integration of supportive measures is desired. Interviewees felt that integrated VVC technical assistance and technology literacy education were imperative. First, training the patient or the patient’s caregiver on how to complete a VVC encounter using the preferred device and the VVC platform would be beneficial. Second, education to inform physicians about common troubleshooting issues could help streamline VVC encounters. Third, managing a VVC encounter similarly to standard in-person visits could allow for better patient and physician experience. For example, physicians suggested that a medical assistant or a nurse triage the patient, take vital signs, and set them up in a room, potentially at a regional VA community based outpatient clinic. Such efforts would also allow patients to receive specialty care in remote areas where only primary care is generally offered. Support staff could assist with technological issues, such as setting up the VVC encounter and addressing potential problems before the physician joins the encounter, thereby preventing delays in patient care. Finally, physicians felt that designating a day solely for CVT visits would help prevent disruption in care with in-person visits.
Theme 4: CVT services may increasingly be used to enhance access to care. Physicians felt that VVC would help patients encountering obstacles in accessing conventional in person services, including patients in rural and underserved areas, with disabilities, or with scheduling challenges.4 Patients with chronic conditions might drive the use of virtual visits, as many of these patients are already accustomed to remote medical monitoring. Data from devices such as scales and continuous glucose monitors can be easily reviewed during VVC visits. Second, video encounters facilitate closer monitoring that some patients might otherwise skip due to significant travel barriers, especially in a rural state like New Mexico. Lastly, VVC may be more efficient than in person visits as they eliminate the need for lengthy parking, checking in, and checking out processes. Thus, if technological issues are resolved, a typical physician’s day in the clinic may be more efficient with virtual visits.
Theme 5: In-person encounters afforded unique advantages over CVT. Some physicians felt in-person visits still offer unique advantages. They opined that the selection of appropriate candidates for CVT is critical. Patients requiring a physical examination should be scheduled for in person visits. For example, patients with advanced chronic kidney disease who require accurate volume status assessment or patients who have recently undergone surgery and need detailed wound inspection should be seen in the clinic. In-person visits may also be preferable for patients with recurrent admissions, or those whose condition is difficult to assess; accurate assessments of such patients may help prevent readmissions. Finally, many patients are more comfortable and satisfied with in-person visits, which are perceived as a more standard or traditional process. Respondents noted that some patients felt physicians may not focus as much attention during a VVC visit as they do during in-person visits. There were also concerns that some patients feel more motivation to come to in-person visits, as they see the VA as a place to interact with other veterans and staff with whom they are familiar and comfortable.
DISCUSSION
VANMHCS physicians, which serves veterans across an expansive territory ranging from Southern Colorado to West Texas. About 4.6 million veterans reside in rural regions, constituting roughly 25% of the total veteran population, a pattern mirrored in New Mexico.13 Medicine Service physicians agreed on a number of themes: VVC user-interface issues may affect its use and effectiveness, technological literacy was important for both patients and health care staff, technical support staff roles before and during VVC visits should be standardized, CVT is likely to increase health care delivery, and in-person encounters are preferred for many patients.
This is the first study to qualitatively evaluate a diverse group of physicians at a VA medical center incorporating CVT services across specialties. A few related qualitative studies have been conducted external to VHA, generally evaluating clinicians within a single specialty. Kalicki and colleagues surveyed 16 physicians working at a large home-based primary care program in New York City between April and June 2020 to identify and explore barriers to telehealth among homebound older adults. Similarly to our study, physicians noted that many patients required assistance (family members or caregivers) with the visit, either due to technological literacy issues or medical conditions like dementia.14
Heyer and colleagues surveyed 29 oncologists at an urban academic center prior to the COVID-19 pandemic. Similar to our observations, the oncologists said telemedicine helped eliminate travel as a barrier to health care. Heyer and colleagues noted difficulty for oncologists in performing virtual physical examinations, despite training. This group did note the benefits when being selective as to which clinical issues they would handle virtually vs in person.15
Budhwani and colleagues reported that mental health professionals in an academic setting cited difficulty establishing therapeutic relationships via telehealth and felt that this affected quality of care.16 While this was not a topic during our interviews, it is reasonable to question how potentially missed nonverbal cues may impact patient assessments.
Notably, technological issues were common among all reviewed studies. These ranged from internet connectivity issues to necessary electronic devices. As mentioned, these barriers are more prevalent in rural states like New Mexico.
Limitations
All participants in this study were Medicine Service physicians of a single VA health care system, which may limit generalizability. Many of our respondents were female (69%), compared with 39.2% of active internal medicine physicians and therefore may not be representative.17 Nearly one-half of our participants only completed 1 to 4 VVC encounters, which may have contributed to the emergence of a common theme regarding technological issues. Physicians with more experience with CVT services may be more skilled at troubleshooting technological issues that arise during visits.
CONCLUSIONS
Our study, conducted with VANMHCS physicians, illuminated 5 key themes influencing the use and implementation of video encounters: technological issues, technological literacy, a desire for integrated support measures, perceived future growth of video telehealth, and the unique advantages of in-person visits. Addressing technological barriers and providing more extensive training may streamline CVT use. However, it is vital to recognize the unique benefits of in-person visits and consider the benefits of each modality along with patient preferences when selecting the best care venue. As health care evolves, better understanding and acting upon these themes will optimize telehealth services, particularly in rural areas. Future research should involve patients and other health care team members to further explore strategies for effective CVT service integration.
Appendix

- Monaghesh E, Hajizadeh A. The role of telehealth during covid-19 outbreak: a systematic review based on current evidence. BMC Public Health. 2020;20(1):1193. doi:10.1186/s12889-020-09301-4
- Scott Kruse C, Karem P, Shifflett K, Vegi L, Ravi K, Brooks M. Evaluating barriers to adopting telemedicine worldwide: a systematic review. J Telemed Telecare. 2018;24(1):4-12. doi:10.1177/1357633X16674087
- Bashshur RL, Howell JD, Krupinski EA, Harms KM, Bashshur N, Doarn CR. The empirical foundations of telemedicine interventions in primary care. Telemed J E Health. 2016;22(5):342-375. doi:10.1089/tmj.2016.0045
- Yellowlees P, Nakagawa K, Pakyurek M, Hanson A, Elder J, Kales HC. Rapid conversion of an outpatient psychiatric clinic to a 100% virtual telepsychiatry clinic in response to covid-19. Pyschiatr Serv. 2020;71(7):749-752. doi:10.1176/appi.ps.202000230
- Hailey D, Ohinmaa A, Roine R. Study quality and evidence of benefit in recent assessments of telemedicine. J Telemed Telecare. 2004;10(6):318-324. doi:10.1258/1357633042602053
- Osuji TA, Macias M, McMullen C, et al. Clinician perspectives on implementing video visits in home-based palliative care. Palliat Med Rep. 2020;1(1):221-226. doi:10.1089/pmr.2020.0074
- Darkins A. The growth of telehealth services in the Veterans Health Administration between 1994 and 2014: a study in the diffusion of innovation. Telemed J E Health. 2014;20(9):761-768. doi:10.1089/tmj.2014.0143
- Dorsey ER, Topol EJ. State of telehealth. N Engl J Med. 2016;375(2):154-161. doi:10.1056/nejmra1601705
- Alexander NB, Phillips K, Wagner-Felkey J, et al. Team VA video connect (VVC) to optimize mobility and physical activity in post-hospital discharge older veterans: Baseline assessment. BMC Geriatr. 2021;21(1):502. doi:10.1186/s12877-021-02454-w
- Padala KP, Wilson KB, Gauss CH, Stovall JD, Padala PR. VA video connect for clinical care in older adults in a rural state during the covid-19 pandemic: cross-sectional study. J Med Internet Res. 2020;22(9)e21561. doi:10.2196/21561
- Myers US, Coulon S, Knies K, et al. Lessons learned in implementing VA video connect for evidence-based psychotherapies for anxiety and depression in the veterans healthcare administration. J Technol Behav Sci. 2020;6(2):320-326. doi:10.1007/s41347-020-00161-8
- Braun V, Clarke V. Using thematic analysis in psychology. Qual Res Psychol. 2006;3(2):77-101. doi:10.1191/1478088706qp063oa
- US Department of Veterans Affairs, National Center for Feterans Analysis and Statistics. Accessed September 18, 2024. www.va.gov/vetdata/report.asp
- Kalicki AV, Moody KA, Franzosa E, Gliatto PM, Ornstein KA. Barriers to telehealth access among homebound older adults. J Am Geriatr Soc. 2021;69(9):2404-2411. doi:10.1111/jgs.17163
- Heyer A, Granberg RE, Rising KL, Binder AF, Gentsch AT, Handley NR. Medical oncology professionals’ perceptions of telehealth video visits. JAMA Netw Open. 2021;4(1) e2033967. doi:10.1001/jamanetworkopen.2020.33967
- Budhwani S, Fujioka JK, Chu C, et al. Delivering mental health care virtually during the COVID-19 pandemic: qualitative evaluation of provider experiences in a scaled context. JMIR Form Res. 2021;5(9)e30280. doi:10.2196/30280
- Association of American Medical Colleges. Active physicians by sex and specialty, 2021. AAMC. Accessed September 18, 2024. https://www.aamc.org/data-reports/workforce/data/active-physicians-sex-specialty-2021
- Monaghesh E, Hajizadeh A. The role of telehealth during covid-19 outbreak: a systematic review based on current evidence. BMC Public Health. 2020;20(1):1193. doi:10.1186/s12889-020-09301-4
- Scott Kruse C, Karem P, Shifflett K, Vegi L, Ravi K, Brooks M. Evaluating barriers to adopting telemedicine worldwide: a systematic review. J Telemed Telecare. 2018;24(1):4-12. doi:10.1177/1357633X16674087
- Bashshur RL, Howell JD, Krupinski EA, Harms KM, Bashshur N, Doarn CR. The empirical foundations of telemedicine interventions in primary care. Telemed J E Health. 2016;22(5):342-375. doi:10.1089/tmj.2016.0045
- Yellowlees P, Nakagawa K, Pakyurek M, Hanson A, Elder J, Kales HC. Rapid conversion of an outpatient psychiatric clinic to a 100% virtual telepsychiatry clinic in response to covid-19. Pyschiatr Serv. 2020;71(7):749-752. doi:10.1176/appi.ps.202000230
- Hailey D, Ohinmaa A, Roine R. Study quality and evidence of benefit in recent assessments of telemedicine. J Telemed Telecare. 2004;10(6):318-324. doi:10.1258/1357633042602053
- Osuji TA, Macias M, McMullen C, et al. Clinician perspectives on implementing video visits in home-based palliative care. Palliat Med Rep. 2020;1(1):221-226. doi:10.1089/pmr.2020.0074
- Darkins A. The growth of telehealth services in the Veterans Health Administration between 1994 and 2014: a study in the diffusion of innovation. Telemed J E Health. 2014;20(9):761-768. doi:10.1089/tmj.2014.0143
- Dorsey ER, Topol EJ. State of telehealth. N Engl J Med. 2016;375(2):154-161. doi:10.1056/nejmra1601705
- Alexander NB, Phillips K, Wagner-Felkey J, et al. Team VA video connect (VVC) to optimize mobility and physical activity in post-hospital discharge older veterans: Baseline assessment. BMC Geriatr. 2021;21(1):502. doi:10.1186/s12877-021-02454-w
- Padala KP, Wilson KB, Gauss CH, Stovall JD, Padala PR. VA video connect for clinical care in older adults in a rural state during the covid-19 pandemic: cross-sectional study. J Med Internet Res. 2020;22(9)e21561. doi:10.2196/21561
- Myers US, Coulon S, Knies K, et al. Lessons learned in implementing VA video connect for evidence-based psychotherapies for anxiety and depression in the veterans healthcare administration. J Technol Behav Sci. 2020;6(2):320-326. doi:10.1007/s41347-020-00161-8
- Braun V, Clarke V. Using thematic analysis in psychology. Qual Res Psychol. 2006;3(2):77-101. doi:10.1191/1478088706qp063oa
- US Department of Veterans Affairs, National Center for Feterans Analysis and Statistics. Accessed September 18, 2024. www.va.gov/vetdata/report.asp
- Kalicki AV, Moody KA, Franzosa E, Gliatto PM, Ornstein KA. Barriers to telehealth access among homebound older adults. J Am Geriatr Soc. 2021;69(9):2404-2411. doi:10.1111/jgs.17163
- Heyer A, Granberg RE, Rising KL, Binder AF, Gentsch AT, Handley NR. Medical oncology professionals’ perceptions of telehealth video visits. JAMA Netw Open. 2021;4(1) e2033967. doi:10.1001/jamanetworkopen.2020.33967
- Budhwani S, Fujioka JK, Chu C, et al. Delivering mental health care virtually during the COVID-19 pandemic: qualitative evaluation of provider experiences in a scaled context. JMIR Form Res. 2021;5(9)e30280. doi:10.2196/30280
- Association of American Medical Colleges. Active physicians by sex and specialty, 2021. AAMC. Accessed September 18, 2024. https://www.aamc.org/data-reports/workforce/data/active-physicians-sex-specialty-2021
Physician Attitudes About Veterans Affairs Video Connect Encounters
Physician Attitudes About Veterans Affairs Video Connect Encounters
Allergic Contact Dermatitis: New Culprits
New allergens responsible for contact dermatitis emerge regularly. During the Dermatology Days of Paris 2024 conference, Angèle Soria, MD, PhD, a dermatologist at Tenon Hospital in Paris, France, outlined four major categories driving this trend. Among them are (meth)acrylates found in nail cosmetics used in salons or do-it-yourself false nail kits that can be bought online.
Isothiazolinones
a preservative used in many cosmetics; (meth)acrylates; essential oils; and epoxy resins used in industry and leisure activities.
Around 15 years ago, parabens, commonly used as preservatives in cosmetics, were identified as endocrine disruptors. In response, they were largely replaced by newer preservatives, notably MI. However, this led to a proliferation of allergic contact dermatitis in Europe between 2010 and 2013.
“About 10% of the population that we tested showed allergies to these preservatives, primarily found in cosmetics,” explained Soria. Since 2015, the use of MI in leave-on cosmetics has been prohibited in Europe and its concentration restricted in rinse-off products. However, cosmetics sold online from outside Europe may not comply with these regulations.
MI is also present in water-based paints to prevent mold. “A few years ago, we started seeing patients with facial angioedema, sometimes combined with asthma, caused by these isothiazolinone preservatives, including in patients who are not professional painters,” said Soria. More recently, attention has shifted to MI’s presence in household cleaning products. A 2020 Spanish study found MI in 76% of 34 analyzed cleaning products.
MI-based fungicides are also used to treat leather during transport, which can lead to contact allergies among professionals and consumers alike. Additionally, MI has been identified in children’s toys, including slime gels, and in florists’ gel cubes used to preserve flowers.
“We are therefore surrounded by these preservatives, which are no longer only in cosmetics,” warned the dermatologist.
(Meth)acrylates
Another major allergen category is (meth)acrylates, responsible for many cases of allergic contact dermatitis. Acrylates and their derivatives are widely used in everyday items. They are low–molecular weight monomers, sensitizing on contact with the skin. Their polymerized forms include materials like Plexiglas.
“We are currently witnessing an epidemic of contact dermatitis in the general population, mainly due to nail cosmetics, such as semipermanent nail polishes and at-home false nail kits,” reported Soria. Nail cosmetics account for 97% of new sensitization cases involving (meth)acrylates. These allergens often cause severe dermatitis, prompting the European Union to mandate labeling in 2020, warning that these products are “for professional use only” and can “cause allergic reactions.”
Beyond nail cosmetics, these allergens are also found in dental products (such as trays), ECG electrodes, prosthetics, glucose sensors, surgical adhesives, and some electronic devices like earbuds and phone screens. Notably, patients sensitized to acrylates via nail kits may experience reactions during dental treatments involving acrylates.
Investigating Essential Oil Use
Essential oils, distinct from vegetable oils like almond or argan, are another known allergen. Often considered risk-free due to their “natural” label, these products are widely used topically, orally, or via inhalation for various purposes, such as treating respiratory infections or creating relaxing atmospheres. However, essential oils contain fragrant molecules like terpenes, which can become highly allergenic over time, especially after repeated exposure.
Soria emphasized the importance of asking patients about their use of essential oils, especially tea tree and lavender oils, which are commonly used but rarely mentioned by patients unless prompted.
Epoxy Resins in Recreational Use
Epoxy resins are a growing cause of contact allergies, not just in professional settings such as aeronautics and construction work but also increasingly in recreational activities. Soria highlighted the case of a 12-year-old girl hospitalized for severe facial edema after engaging in resin crafts inspired by TikTok. For 6 months, she had been creating resin objects, such as bowls and cutting boards, using vinyl gloves and a Filtering FacePiece 2 mask under adult supervision.
“The growing popularity and online availability of epoxy resins mean that allergic reactions should now be considered even in nonprofessional contexts,” warned Soria.
Clinical Approach
When dermatologists suspect allergic contact dermatitis, the first step is to treat the condition with corticosteroid creams. This is followed by a detailed patient interview to identify suspected allergens in products they’ve used.
Patch testing is then conducted to confirm the allergen. Small chambers containing potential allergens are applied to the upper back for 48 hours without removal. Results are read 2-5 days later, with some cases requiring a 7-day follow-up.
The patient’s occupation is an important factor, as certain professions, such as hairdressing, healthcare, or beauty therapy, are known to trigger allergic contact dermatitis. Similarly, certain hobbies may also play a role.
A thorough approach ensures accurate diagnosis and targeted prevention strategies.
This story was translated from Medscape’s French edition using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.
New allergens responsible for contact dermatitis emerge regularly. During the Dermatology Days of Paris 2024 conference, Angèle Soria, MD, PhD, a dermatologist at Tenon Hospital in Paris, France, outlined four major categories driving this trend. Among them are (meth)acrylates found in nail cosmetics used in salons or do-it-yourself false nail kits that can be bought online.
Isothiazolinones
a preservative used in many cosmetics; (meth)acrylates; essential oils; and epoxy resins used in industry and leisure activities.
Around 15 years ago, parabens, commonly used as preservatives in cosmetics, were identified as endocrine disruptors. In response, they were largely replaced by newer preservatives, notably MI. However, this led to a proliferation of allergic contact dermatitis in Europe between 2010 and 2013.
“About 10% of the population that we tested showed allergies to these preservatives, primarily found in cosmetics,” explained Soria. Since 2015, the use of MI in leave-on cosmetics has been prohibited in Europe and its concentration restricted in rinse-off products. However, cosmetics sold online from outside Europe may not comply with these regulations.
MI is also present in water-based paints to prevent mold. “A few years ago, we started seeing patients with facial angioedema, sometimes combined with asthma, caused by these isothiazolinone preservatives, including in patients who are not professional painters,” said Soria. More recently, attention has shifted to MI’s presence in household cleaning products. A 2020 Spanish study found MI in 76% of 34 analyzed cleaning products.
MI-based fungicides are also used to treat leather during transport, which can lead to contact allergies among professionals and consumers alike. Additionally, MI has been identified in children’s toys, including slime gels, and in florists’ gel cubes used to preserve flowers.
“We are therefore surrounded by these preservatives, which are no longer only in cosmetics,” warned the dermatologist.
(Meth)acrylates
Another major allergen category is (meth)acrylates, responsible for many cases of allergic contact dermatitis. Acrylates and their derivatives are widely used in everyday items. They are low–molecular weight monomers, sensitizing on contact with the skin. Their polymerized forms include materials like Plexiglas.
“We are currently witnessing an epidemic of contact dermatitis in the general population, mainly due to nail cosmetics, such as semipermanent nail polishes and at-home false nail kits,” reported Soria. Nail cosmetics account for 97% of new sensitization cases involving (meth)acrylates. These allergens often cause severe dermatitis, prompting the European Union to mandate labeling in 2020, warning that these products are “for professional use only” and can “cause allergic reactions.”
Beyond nail cosmetics, these allergens are also found in dental products (such as trays), ECG electrodes, prosthetics, glucose sensors, surgical adhesives, and some electronic devices like earbuds and phone screens. Notably, patients sensitized to acrylates via nail kits may experience reactions during dental treatments involving acrylates.
Investigating Essential Oil Use
Essential oils, distinct from vegetable oils like almond or argan, are another known allergen. Often considered risk-free due to their “natural” label, these products are widely used topically, orally, or via inhalation for various purposes, such as treating respiratory infections or creating relaxing atmospheres. However, essential oils contain fragrant molecules like terpenes, which can become highly allergenic over time, especially after repeated exposure.
Soria emphasized the importance of asking patients about their use of essential oils, especially tea tree and lavender oils, which are commonly used but rarely mentioned by patients unless prompted.
Epoxy Resins in Recreational Use
Epoxy resins are a growing cause of contact allergies, not just in professional settings such as aeronautics and construction work but also increasingly in recreational activities. Soria highlighted the case of a 12-year-old girl hospitalized for severe facial edema after engaging in resin crafts inspired by TikTok. For 6 months, she had been creating resin objects, such as bowls and cutting boards, using vinyl gloves and a Filtering FacePiece 2 mask under adult supervision.
“The growing popularity and online availability of epoxy resins mean that allergic reactions should now be considered even in nonprofessional contexts,” warned Soria.
Clinical Approach
When dermatologists suspect allergic contact dermatitis, the first step is to treat the condition with corticosteroid creams. This is followed by a detailed patient interview to identify suspected allergens in products they’ve used.
Patch testing is then conducted to confirm the allergen. Small chambers containing potential allergens are applied to the upper back for 48 hours without removal. Results are read 2-5 days later, with some cases requiring a 7-day follow-up.
The patient’s occupation is an important factor, as certain professions, such as hairdressing, healthcare, or beauty therapy, are known to trigger allergic contact dermatitis. Similarly, certain hobbies may also play a role.
A thorough approach ensures accurate diagnosis and targeted prevention strategies.
This story was translated from Medscape’s French edition using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.
New allergens responsible for contact dermatitis emerge regularly. During the Dermatology Days of Paris 2024 conference, Angèle Soria, MD, PhD, a dermatologist at Tenon Hospital in Paris, France, outlined four major categories driving this trend. Among them are (meth)acrylates found in nail cosmetics used in salons or do-it-yourself false nail kits that can be bought online.
Isothiazolinones
a preservative used in many cosmetics; (meth)acrylates; essential oils; and epoxy resins used in industry and leisure activities.
Around 15 years ago, parabens, commonly used as preservatives in cosmetics, were identified as endocrine disruptors. In response, they were largely replaced by newer preservatives, notably MI. However, this led to a proliferation of allergic contact dermatitis in Europe between 2010 and 2013.
“About 10% of the population that we tested showed allergies to these preservatives, primarily found in cosmetics,” explained Soria. Since 2015, the use of MI in leave-on cosmetics has been prohibited in Europe and its concentration restricted in rinse-off products. However, cosmetics sold online from outside Europe may not comply with these regulations.
MI is also present in water-based paints to prevent mold. “A few years ago, we started seeing patients with facial angioedema, sometimes combined with asthma, caused by these isothiazolinone preservatives, including in patients who are not professional painters,” said Soria. More recently, attention has shifted to MI’s presence in household cleaning products. A 2020 Spanish study found MI in 76% of 34 analyzed cleaning products.
MI-based fungicides are also used to treat leather during transport, which can lead to contact allergies among professionals and consumers alike. Additionally, MI has been identified in children’s toys, including slime gels, and in florists’ gel cubes used to preserve flowers.
“We are therefore surrounded by these preservatives, which are no longer only in cosmetics,” warned the dermatologist.
(Meth)acrylates
Another major allergen category is (meth)acrylates, responsible for many cases of allergic contact dermatitis. Acrylates and their derivatives are widely used in everyday items. They are low–molecular weight monomers, sensitizing on contact with the skin. Their polymerized forms include materials like Plexiglas.
“We are currently witnessing an epidemic of contact dermatitis in the general population, mainly due to nail cosmetics, such as semipermanent nail polishes and at-home false nail kits,” reported Soria. Nail cosmetics account for 97% of new sensitization cases involving (meth)acrylates. These allergens often cause severe dermatitis, prompting the European Union to mandate labeling in 2020, warning that these products are “for professional use only” and can “cause allergic reactions.”
Beyond nail cosmetics, these allergens are also found in dental products (such as trays), ECG electrodes, prosthetics, glucose sensors, surgical adhesives, and some electronic devices like earbuds and phone screens. Notably, patients sensitized to acrylates via nail kits may experience reactions during dental treatments involving acrylates.
Investigating Essential Oil Use
Essential oils, distinct from vegetable oils like almond or argan, are another known allergen. Often considered risk-free due to their “natural” label, these products are widely used topically, orally, or via inhalation for various purposes, such as treating respiratory infections or creating relaxing atmospheres. However, essential oils contain fragrant molecules like terpenes, which can become highly allergenic over time, especially after repeated exposure.
Soria emphasized the importance of asking patients about their use of essential oils, especially tea tree and lavender oils, which are commonly used but rarely mentioned by patients unless prompted.
Epoxy Resins in Recreational Use
Epoxy resins are a growing cause of contact allergies, not just in professional settings such as aeronautics and construction work but also increasingly in recreational activities. Soria highlighted the case of a 12-year-old girl hospitalized for severe facial edema after engaging in resin crafts inspired by TikTok. For 6 months, she had been creating resin objects, such as bowls and cutting boards, using vinyl gloves and a Filtering FacePiece 2 mask under adult supervision.
“The growing popularity and online availability of epoxy resins mean that allergic reactions should now be considered even in nonprofessional contexts,” warned Soria.
Clinical Approach
When dermatologists suspect allergic contact dermatitis, the first step is to treat the condition with corticosteroid creams. This is followed by a detailed patient interview to identify suspected allergens in products they’ve used.
Patch testing is then conducted to confirm the allergen. Small chambers containing potential allergens are applied to the upper back for 48 hours without removal. Results are read 2-5 days later, with some cases requiring a 7-day follow-up.
The patient’s occupation is an important factor, as certain professions, such as hairdressing, healthcare, or beauty therapy, are known to trigger allergic contact dermatitis. Similarly, certain hobbies may also play a role.
A thorough approach ensures accurate diagnosis and targeted prevention strategies.
This story was translated from Medscape’s French edition using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.