Florida doctor won’t treat unvaccinated patients in person

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A doctor in South Miami says she will no longer treat unvaccinated patients in person as COVID-19 cases remain high in Florida.

Linda Marraccini, MD, sent a letter to patients that said those who aren’t vaccinated won’t be allowed to book in-person appointments at her practice now that the Food and Drug Administration has fully approved the Pfizer vaccine for general use, according to NBC Miami.

“This is a public health emergency – the health of the public takes priority over the rights of any given individual in this situation,” she wrote in the letter, which was obtained by NBC Miami.

“It appears that there is a lack of selflessness and concern for the burden on the health and well-being of our society from our encounters,” she wrote.

Dr. Marraccini said the policy is in the best interest of her other patients and doesn’t violate the Hippocratic oath. Patients who are having chemotherapy or who have weak immune systems face higher risks of being infected with the coronavirus.

“It’s not fair for people who are unvaccinated to harm other people,” she told Newsweek  Sept. 4.

“The Hippocratic oath is very science based,” she said. “I am following the science. I’m applying this to the benefit of the sick.”

Dr. Marraccini said her new policy goes into effect on Sept. 15, and she will continue to see unvaccinated patients virtually during the next month until they find another health care provider.

She said that the response to her decision has been “99.9% favorable” and that she will make exceptions if patients can’t receive a shot because of hardships. Her office also provides the Johnson & Johnson vaccine.

“We’re not going to leave them out there in the cold,” she told Newsweek.

During the past month, COVID-19 cases have surged in Florida, reaching record-level highs of more than 20,000 cases per day. Cases began rising in the summer because of the more contagious Delta variant.

In late August, a group of doctors in southern Florida urged people to get vaccinated, citing their exhaustion and frustration with unvaccinated patients who make up the large majority of COVID-19 hospitalizations, according to Newsweek.

Other doctors have declined to treat unvaccinated patients in recent weeks. Jason Valentine, MD, a doctor in Mobile, Ala., said he would no longer see unvaccinated patients as of Oct. 1, according to AL.com.

Dr. Marraccini urged people to become informed about COVID-19 vaccines, as well as their role in reducing the surge of cases in the state. The pandemic “did not have to go on this long,” she said.

“Responsibility has to do with each individual,” she told Newsweek. “This is a global health issue, and everyone owns part of that responsibility.”

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

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A doctor in South Miami says she will no longer treat unvaccinated patients in person as COVID-19 cases remain high in Florida.

Linda Marraccini, MD, sent a letter to patients that said those who aren’t vaccinated won’t be allowed to book in-person appointments at her practice now that the Food and Drug Administration has fully approved the Pfizer vaccine for general use, according to NBC Miami.

“This is a public health emergency – the health of the public takes priority over the rights of any given individual in this situation,” she wrote in the letter, which was obtained by NBC Miami.

“It appears that there is a lack of selflessness and concern for the burden on the health and well-being of our society from our encounters,” she wrote.

Dr. Marraccini said the policy is in the best interest of her other patients and doesn’t violate the Hippocratic oath. Patients who are having chemotherapy or who have weak immune systems face higher risks of being infected with the coronavirus.

“It’s not fair for people who are unvaccinated to harm other people,” she told Newsweek  Sept. 4.

“The Hippocratic oath is very science based,” she said. “I am following the science. I’m applying this to the benefit of the sick.”

Dr. Marraccini said her new policy goes into effect on Sept. 15, and she will continue to see unvaccinated patients virtually during the next month until they find another health care provider.

She said that the response to her decision has been “99.9% favorable” and that she will make exceptions if patients can’t receive a shot because of hardships. Her office also provides the Johnson & Johnson vaccine.

“We’re not going to leave them out there in the cold,” she told Newsweek.

During the past month, COVID-19 cases have surged in Florida, reaching record-level highs of more than 20,000 cases per day. Cases began rising in the summer because of the more contagious Delta variant.

In late August, a group of doctors in southern Florida urged people to get vaccinated, citing their exhaustion and frustration with unvaccinated patients who make up the large majority of COVID-19 hospitalizations, according to Newsweek.

Other doctors have declined to treat unvaccinated patients in recent weeks. Jason Valentine, MD, a doctor in Mobile, Ala., said he would no longer see unvaccinated patients as of Oct. 1, according to AL.com.

Dr. Marraccini urged people to become informed about COVID-19 vaccines, as well as their role in reducing the surge of cases in the state. The pandemic “did not have to go on this long,” she said.

“Responsibility has to do with each individual,” she told Newsweek. “This is a global health issue, and everyone owns part of that responsibility.”

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

A doctor in South Miami says she will no longer treat unvaccinated patients in person as COVID-19 cases remain high in Florida.

Linda Marraccini, MD, sent a letter to patients that said those who aren’t vaccinated won’t be allowed to book in-person appointments at her practice now that the Food and Drug Administration has fully approved the Pfizer vaccine for general use, according to NBC Miami.

“This is a public health emergency – the health of the public takes priority over the rights of any given individual in this situation,” she wrote in the letter, which was obtained by NBC Miami.

“It appears that there is a lack of selflessness and concern for the burden on the health and well-being of our society from our encounters,” she wrote.

Dr. Marraccini said the policy is in the best interest of her other patients and doesn’t violate the Hippocratic oath. Patients who are having chemotherapy or who have weak immune systems face higher risks of being infected with the coronavirus.

“It’s not fair for people who are unvaccinated to harm other people,” she told Newsweek  Sept. 4.

“The Hippocratic oath is very science based,” she said. “I am following the science. I’m applying this to the benefit of the sick.”

Dr. Marraccini said her new policy goes into effect on Sept. 15, and she will continue to see unvaccinated patients virtually during the next month until they find another health care provider.

She said that the response to her decision has been “99.9% favorable” and that she will make exceptions if patients can’t receive a shot because of hardships. Her office also provides the Johnson & Johnson vaccine.

“We’re not going to leave them out there in the cold,” she told Newsweek.

During the past month, COVID-19 cases have surged in Florida, reaching record-level highs of more than 20,000 cases per day. Cases began rising in the summer because of the more contagious Delta variant.

In late August, a group of doctors in southern Florida urged people to get vaccinated, citing their exhaustion and frustration with unvaccinated patients who make up the large majority of COVID-19 hospitalizations, according to Newsweek.

Other doctors have declined to treat unvaccinated patients in recent weeks. Jason Valentine, MD, a doctor in Mobile, Ala., said he would no longer see unvaccinated patients as of Oct. 1, according to AL.com.

Dr. Marraccini urged people to become informed about COVID-19 vaccines, as well as their role in reducing the surge of cases in the state. The pandemic “did not have to go on this long,” she said.

“Responsibility has to do with each individual,” she told Newsweek. “This is a global health issue, and everyone owns part of that responsibility.”

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

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United States reaches 5 million cases of child COVID

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Cases of child COVID-19 set a new 1-week record and the total number of children infected during the pandemic passed 5 million, according to a report from the American Academy of Pediatrics and the Children’s Hospital Association.

The nearly 282,000 new cases reported in the United States during the week ending Sept. 2 broke the record of 211,000 set in mid-January and brought the cumulative count to 5,049,465 children with COVID-19 since the pandemic began, the AAP and the CHA said in their weekly COVID report.

Hospitalizations in children aged 0-17 years have also reached record levels in recent days. The highest daily admission rate since the pandemic began, 0.51 per 100,000 population, was recorded on Sept. 2, less than 2 months after the nation saw its lowest child COVID admission rate for 1 day: 0.07 per 100,000 on July 4. That’s an increase of 629%, according to data from the Centers for Disease Control and Prevention.

Vaccinations in children, however, did not follow suit. New vaccinations in children aged 12-17 years dropped by 4.5% for the week ending Sept. 6, compared with the week before. Initiations were actually up almost 12% for children aged 16-17, but that was not enough to overcome the continued decline among 12- to 15-year-olds, the CDC said on its COVID Data Tracker.



Despite the decline in new vaccinations, those younger children passed a noteworthy group milestone: 50.9% of all 12- to 15-year-olds now have received at least one dose, with 38.6% having completed the regimen. The 16- to 17-year-olds got an earlier start and have reached 58.9% coverage for one dose and 47.6% for two, the CDC said.

A total of 12.2 million children aged 12-17 years had received at least one dose of COVID vaccine as of Sept. 6, of whom almost 9.5 million are fully vaccinated, based on the CDC data.

At the state level, Vermont has the highest rates for vaccine initiation (75%) and full vaccination (65%), with Massachusetts (75%/62%) and Connecticut (73%/59%) just behind. The other end of the scale is occupied by Wyoming (28% initiation/19% full vaccination), Alabama (32%/19%), and North Dakota (32%/23%), the AAP said in a separate report.

In a recent letter to the Food and Drug Administration, AAP President Lee Savio Beers, MD, said that the “Delta variant is surging at extremely alarming rates in every region of America. This surge is seriously impacting all populations, including children.” Dr. Beers urged the FDA to work “aggressively toward authorizing safe and effective COVID-19 vaccines for children under age 12 as soon as possible.”

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Cases of child COVID-19 set a new 1-week record and the total number of children infected during the pandemic passed 5 million, according to a report from the American Academy of Pediatrics and the Children’s Hospital Association.

The nearly 282,000 new cases reported in the United States during the week ending Sept. 2 broke the record of 211,000 set in mid-January and brought the cumulative count to 5,049,465 children with COVID-19 since the pandemic began, the AAP and the CHA said in their weekly COVID report.

Hospitalizations in children aged 0-17 years have also reached record levels in recent days. The highest daily admission rate since the pandemic began, 0.51 per 100,000 population, was recorded on Sept. 2, less than 2 months after the nation saw its lowest child COVID admission rate for 1 day: 0.07 per 100,000 on July 4. That’s an increase of 629%, according to data from the Centers for Disease Control and Prevention.

Vaccinations in children, however, did not follow suit. New vaccinations in children aged 12-17 years dropped by 4.5% for the week ending Sept. 6, compared with the week before. Initiations were actually up almost 12% for children aged 16-17, but that was not enough to overcome the continued decline among 12- to 15-year-olds, the CDC said on its COVID Data Tracker.



Despite the decline in new vaccinations, those younger children passed a noteworthy group milestone: 50.9% of all 12- to 15-year-olds now have received at least one dose, with 38.6% having completed the regimen. The 16- to 17-year-olds got an earlier start and have reached 58.9% coverage for one dose and 47.6% for two, the CDC said.

A total of 12.2 million children aged 12-17 years had received at least one dose of COVID vaccine as of Sept. 6, of whom almost 9.5 million are fully vaccinated, based on the CDC data.

At the state level, Vermont has the highest rates for vaccine initiation (75%) and full vaccination (65%), with Massachusetts (75%/62%) and Connecticut (73%/59%) just behind. The other end of the scale is occupied by Wyoming (28% initiation/19% full vaccination), Alabama (32%/19%), and North Dakota (32%/23%), the AAP said in a separate report.

In a recent letter to the Food and Drug Administration, AAP President Lee Savio Beers, MD, said that the “Delta variant is surging at extremely alarming rates in every region of America. This surge is seriously impacting all populations, including children.” Dr. Beers urged the FDA to work “aggressively toward authorizing safe and effective COVID-19 vaccines for children under age 12 as soon as possible.”

Cases of child COVID-19 set a new 1-week record and the total number of children infected during the pandemic passed 5 million, according to a report from the American Academy of Pediatrics and the Children’s Hospital Association.

The nearly 282,000 new cases reported in the United States during the week ending Sept. 2 broke the record of 211,000 set in mid-January and brought the cumulative count to 5,049,465 children with COVID-19 since the pandemic began, the AAP and the CHA said in their weekly COVID report.

Hospitalizations in children aged 0-17 years have also reached record levels in recent days. The highest daily admission rate since the pandemic began, 0.51 per 100,000 population, was recorded on Sept. 2, less than 2 months after the nation saw its lowest child COVID admission rate for 1 day: 0.07 per 100,000 on July 4. That’s an increase of 629%, according to data from the Centers for Disease Control and Prevention.

Vaccinations in children, however, did not follow suit. New vaccinations in children aged 12-17 years dropped by 4.5% for the week ending Sept. 6, compared with the week before. Initiations were actually up almost 12% for children aged 16-17, but that was not enough to overcome the continued decline among 12- to 15-year-olds, the CDC said on its COVID Data Tracker.



Despite the decline in new vaccinations, those younger children passed a noteworthy group milestone: 50.9% of all 12- to 15-year-olds now have received at least one dose, with 38.6% having completed the regimen. The 16- to 17-year-olds got an earlier start and have reached 58.9% coverage for one dose and 47.6% for two, the CDC said.

A total of 12.2 million children aged 12-17 years had received at least one dose of COVID vaccine as of Sept. 6, of whom almost 9.5 million are fully vaccinated, based on the CDC data.

At the state level, Vermont has the highest rates for vaccine initiation (75%) and full vaccination (65%), with Massachusetts (75%/62%) and Connecticut (73%/59%) just behind. The other end of the scale is occupied by Wyoming (28% initiation/19% full vaccination), Alabama (32%/19%), and North Dakota (32%/23%), the AAP said in a separate report.

In a recent letter to the Food and Drug Administration, AAP President Lee Savio Beers, MD, said that the “Delta variant is surging at extremely alarming rates in every region of America. This surge is seriously impacting all populations, including children.” Dr. Beers urged the FDA to work “aggressively toward authorizing safe and effective COVID-19 vaccines for children under age 12 as soon as possible.”

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Open notes: Legal issues

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In July, I had my annual physical with my primary care physician, whose practice is based out of a large urban academic medical center. As she concluded my visit and directed me to the lab to have my blood work done, she said, “You’ll be receiving an automatic notice from MyChart by 9 am tomorrow that your medical records from today’s visit are available. I apologize if I have not yet had the opportunity to review them and enter my note, but you’ll get access to all of that, as well, as soon as it is in the system.”

Valerie Gutmann Koch

This sort of interaction is increasingly common across the United States as health care institutions implement policies and procedures to comply with new regulations promulgated by the Office of the National Coordinator for Health Information Technology (ONC), which went into effect on April 5, 2021. These rules were promulgated in accordance with the 21st Century Cures Act of 2016 (Cures Act).1 The regulations, known as the Interoperability, Information Blocking, and the ONC Health IT Certification Program, implement provisions of the Cures Act intended to “support the access, exchange, and use of electronic health information.” The rule is considered a significant step in the “open notes” movement, which is intended to make health care more transparent by enabling patients to access their medical records. The drafters of the ONC regulations have carved out certain exceptions to the information blocking rule. For example, one exception allows some patient information to be withheld where making that information available might cause physical harm to the patient or another person.

Thus far, few patients have been informed about the new regulation.2 By forbidding “information blocking,” the rule enables patients to more easily access and control their health information. Currently, the rule requires that physicians allow automatic access, without charge, to a patient’s own personal health information, including clinical notes, medication lists, laboratory results, and other diagnostic reports. Records must be provided “without delay,” or at least as soon as the physician’s office receives an electronic copy. In 2022, it will be required that access to even more of a patient’s personal electronic health record be provided in real-time through a patient portal and that electronic health information be shareable across third-party apps.

The Cures Act and the regulations governing its implementation highlight the inherent tension between two core principles of bioethical inquiry: autonomy and beneficence. The first principle, autonomy, champions allowing patient access and control over their own personal information. Beneficence, which is often expressed as paternalism, ensures that the experts are able to analyze and interpret data so that patients are in the best position to then make informed decisions.

With these principles in mind, arguments against open notes have generally fallen into three related categories. First, critics worry that immediate access to one’s medical record will increase patient anxiety caused by feelings of being inundated with complex medical information that patients may be ill-equipped to analyze and understand. This is a common refrain any time policies are implemented to improve medical information sharing. For example, critics of direct-to-consumer genetic testing caution that permitting unfettered access to complex information, particularly without an intermediary to interpret the data, could lead to confusion and poor medical choices.

There may be validity to this claim. One study found that 3% of patients reported feeling very confused when granted access to their medical notes.3 Another study concluded that direct release of medical test results “sometimes leads to unnecessary anxiety.”4 While the drafters of the ONC regulations have carved out certain exceptions to the information blocking rule, those exceptions do not allow for withholding of information because of concerns about patient anxiety or psychological harms.

The second common critique of open notes is that requiring release of all clinical notes will lead to clinician self-censorship, effectively muzzling or silencing the experts whose responsibility it is to objectively interpret results in order to provide the best care for their patients. Some have expressed concern that clinicians will be forced to “code” their records to avoid addressing “sensitive” subjects that might make patients feel offended or judged. This, in turn, might lead to less complete, reliable, or useful clinician communication.3

In fact, open notes has led to changes in the documentation process for some clinicians. They have reported modifying the way they document patient visits by changing their use of critical language and sensitive information.5 One study found that open notes led physicians to adjust “their language to avoid being perceived as critical of patients; omitting certain terms, such as ‘noncompliant’ and ‘patient denies’; and modifying how they document sensitive information.”3

In response, experts recommend focusing on precise and empathetic patient notes; in other words, the clinician should not write something in the note that they would not say directly to the patient. For example, they recommend that clinicians use precise language (for example, identifying the patient’s BMI) rather than using terms that could be offensive (for example, labeling the patient as “obese”).6 The shift to more empathetic note-taking could be seen less as a burden and more as a valuable tool in the shared decision-making endeavor: It could allow physicians to document both their clinical judgments and the patient’s values and preferences, which could lead to better medical decision-making.

Third, critics of open notes point to concerns about the burden it places on clinicians’ already limited time. The ONC rule requires automatic release of test results regardless of whether the clinician has had the opportunity to review them and offer their interpretation and insight. Because physician interpretation of results has known benefits,4 this puts additional pressure on clinicians to review results and enter notes in a timely manner. But physicians have reported that often open notes necessitates that they spend more time on documentation than they would otherwise.5

Despite critiques of open notes, the benefits of allowing patients access to their medical records have been repeatedly demonstrated. And research has shown that patients benefit from accessing open notes by allowing them to access and control their own personal medical information.5 Patients report that they understand and value the information provided to them in their medical records,7 and they feel empowered to participate in their medical decision-making. In surveys, patients report that reading their doctors’ notes is useful for taking care of their health and for remembering their care plans, understanding why a medication was prescribed, and reinforcing the need to take their medications and adhere to treatment plans.8

Importantly, open notes can increase patient engagement and patients’ trust in their physicians,9 thereby improving the doctor-patient relationship.3 And allowing patients to share their medical records with care partners enables supported decision-making, particularly for older and chronically ill individuals.3 Additionally, it is predicted that open notes may, in fact, decrease legal liability.9 By improving both trust in the doctor-patient relationship and safety, some experts expect that legal claims against clinicians will, in turn, decrease.10

The modern practice of medicine necessitates a more empathetic approach to clinical note-taking, even in the absence of regulation requiring it. As the regulations implementing the Cures Act roll out, patients will have easier, and more immediate, access to their medical records. Despite earlier hesitancy, clinicians are steadily beginning to support sharing access to notes with patients.5 Change can be hard. But the change expected of clinicians because of these new regulations appears to be less onerous than originally anticipated.

 

Prof. Koch is codirector of Health Law & Policy Institute and assistant professor at the University of Houston Law Center, as well as director of law and ethics at the MacLean Center for Clinical Medical Ethics at the University of Chicago. She has no disclosures.

 

This article was updated Sept. 9, 2021.

References

1. Fed Regist. 2020 May;85(85):25642-961.

2. The Petrie-Flom Center Staff. “New Rule Puts Medical Data in Patients’ Hands.” Bill of Health. July 12, 2021. Accessed August 30, 2021. https://blog.petrieflom.law.harvard.edu/2021/07/12/new-rule-puts-medical-data-in-patients-hands/.

3. Blease C et al. Ann Intern Med. 2021 Jan;174(1):101-2.

4. Pillemer F et al. PLoS One. 2016 Jun. doi: 10.1371/journal.pone.0154743.

5. DesRoches CM et al. JAMA Netw Open. 2020 Mar. doi: 10.1001/jamanetworkopen.2020.1753.

6. Heath S. “Most Patients Understand Clinical Notes, Patient Data Access.” Patient Engagement HIT. July 29, 2020. Accessed August 30, 2021. https://patientengagementhit.com/news/most-patients-understand-clinical-notes-patient-data-access

7. Leveille SG et al. J Gen Intern Med. 2020 Dec;35(12):3510-6.

8. Walker J et al. J Med Internet Res. 2019 May. doi: 10.2196/13876.

9. Bell SK et al. BMJ Qual Saf. 2017 Apr;26(4):262-70.

10. Kachalia A, Mello MM. N Engl J Med. 2011 Apr;364(16):1564-72.

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In July, I had my annual physical with my primary care physician, whose practice is based out of a large urban academic medical center. As she concluded my visit and directed me to the lab to have my blood work done, she said, “You’ll be receiving an automatic notice from MyChart by 9 am tomorrow that your medical records from today’s visit are available. I apologize if I have not yet had the opportunity to review them and enter my note, but you’ll get access to all of that, as well, as soon as it is in the system.”

Valerie Gutmann Koch

This sort of interaction is increasingly common across the United States as health care institutions implement policies and procedures to comply with new regulations promulgated by the Office of the National Coordinator for Health Information Technology (ONC), which went into effect on April 5, 2021. These rules were promulgated in accordance with the 21st Century Cures Act of 2016 (Cures Act).1 The regulations, known as the Interoperability, Information Blocking, and the ONC Health IT Certification Program, implement provisions of the Cures Act intended to “support the access, exchange, and use of electronic health information.” The rule is considered a significant step in the “open notes” movement, which is intended to make health care more transparent by enabling patients to access their medical records. The drafters of the ONC regulations have carved out certain exceptions to the information blocking rule. For example, one exception allows some patient information to be withheld where making that information available might cause physical harm to the patient or another person.

Thus far, few patients have been informed about the new regulation.2 By forbidding “information blocking,” the rule enables patients to more easily access and control their health information. Currently, the rule requires that physicians allow automatic access, without charge, to a patient’s own personal health information, including clinical notes, medication lists, laboratory results, and other diagnostic reports. Records must be provided “without delay,” or at least as soon as the physician’s office receives an electronic copy. In 2022, it will be required that access to even more of a patient’s personal electronic health record be provided in real-time through a patient portal and that electronic health information be shareable across third-party apps.

The Cures Act and the regulations governing its implementation highlight the inherent tension between two core principles of bioethical inquiry: autonomy and beneficence. The first principle, autonomy, champions allowing patient access and control over their own personal information. Beneficence, which is often expressed as paternalism, ensures that the experts are able to analyze and interpret data so that patients are in the best position to then make informed decisions.

With these principles in mind, arguments against open notes have generally fallen into three related categories. First, critics worry that immediate access to one’s medical record will increase patient anxiety caused by feelings of being inundated with complex medical information that patients may be ill-equipped to analyze and understand. This is a common refrain any time policies are implemented to improve medical information sharing. For example, critics of direct-to-consumer genetic testing caution that permitting unfettered access to complex information, particularly without an intermediary to interpret the data, could lead to confusion and poor medical choices.

There may be validity to this claim. One study found that 3% of patients reported feeling very confused when granted access to their medical notes.3 Another study concluded that direct release of medical test results “sometimes leads to unnecessary anxiety.”4 While the drafters of the ONC regulations have carved out certain exceptions to the information blocking rule, those exceptions do not allow for withholding of information because of concerns about patient anxiety or psychological harms.

The second common critique of open notes is that requiring release of all clinical notes will lead to clinician self-censorship, effectively muzzling or silencing the experts whose responsibility it is to objectively interpret results in order to provide the best care for their patients. Some have expressed concern that clinicians will be forced to “code” their records to avoid addressing “sensitive” subjects that might make patients feel offended or judged. This, in turn, might lead to less complete, reliable, or useful clinician communication.3

In fact, open notes has led to changes in the documentation process for some clinicians. They have reported modifying the way they document patient visits by changing their use of critical language and sensitive information.5 One study found that open notes led physicians to adjust “their language to avoid being perceived as critical of patients; omitting certain terms, such as ‘noncompliant’ and ‘patient denies’; and modifying how they document sensitive information.”3

In response, experts recommend focusing on precise and empathetic patient notes; in other words, the clinician should not write something in the note that they would not say directly to the patient. For example, they recommend that clinicians use precise language (for example, identifying the patient’s BMI) rather than using terms that could be offensive (for example, labeling the patient as “obese”).6 The shift to more empathetic note-taking could be seen less as a burden and more as a valuable tool in the shared decision-making endeavor: It could allow physicians to document both their clinical judgments and the patient’s values and preferences, which could lead to better medical decision-making.

Third, critics of open notes point to concerns about the burden it places on clinicians’ already limited time. The ONC rule requires automatic release of test results regardless of whether the clinician has had the opportunity to review them and offer their interpretation and insight. Because physician interpretation of results has known benefits,4 this puts additional pressure on clinicians to review results and enter notes in a timely manner. But physicians have reported that often open notes necessitates that they spend more time on documentation than they would otherwise.5

Despite critiques of open notes, the benefits of allowing patients access to their medical records have been repeatedly demonstrated. And research has shown that patients benefit from accessing open notes by allowing them to access and control their own personal medical information.5 Patients report that they understand and value the information provided to them in their medical records,7 and they feel empowered to participate in their medical decision-making. In surveys, patients report that reading their doctors’ notes is useful for taking care of their health and for remembering their care plans, understanding why a medication was prescribed, and reinforcing the need to take their medications and adhere to treatment plans.8

Importantly, open notes can increase patient engagement and patients’ trust in their physicians,9 thereby improving the doctor-patient relationship.3 And allowing patients to share their medical records with care partners enables supported decision-making, particularly for older and chronically ill individuals.3 Additionally, it is predicted that open notes may, in fact, decrease legal liability.9 By improving both trust in the doctor-patient relationship and safety, some experts expect that legal claims against clinicians will, in turn, decrease.10

The modern practice of medicine necessitates a more empathetic approach to clinical note-taking, even in the absence of regulation requiring it. As the regulations implementing the Cures Act roll out, patients will have easier, and more immediate, access to their medical records. Despite earlier hesitancy, clinicians are steadily beginning to support sharing access to notes with patients.5 Change can be hard. But the change expected of clinicians because of these new regulations appears to be less onerous than originally anticipated.

 

Prof. Koch is codirector of Health Law & Policy Institute and assistant professor at the University of Houston Law Center, as well as director of law and ethics at the MacLean Center for Clinical Medical Ethics at the University of Chicago. She has no disclosures.

 

This article was updated Sept. 9, 2021.

References

1. Fed Regist. 2020 May;85(85):25642-961.

2. The Petrie-Flom Center Staff. “New Rule Puts Medical Data in Patients’ Hands.” Bill of Health. July 12, 2021. Accessed August 30, 2021. https://blog.petrieflom.law.harvard.edu/2021/07/12/new-rule-puts-medical-data-in-patients-hands/.

3. Blease C et al. Ann Intern Med. 2021 Jan;174(1):101-2.

4. Pillemer F et al. PLoS One. 2016 Jun. doi: 10.1371/journal.pone.0154743.

5. DesRoches CM et al. JAMA Netw Open. 2020 Mar. doi: 10.1001/jamanetworkopen.2020.1753.

6. Heath S. “Most Patients Understand Clinical Notes, Patient Data Access.” Patient Engagement HIT. July 29, 2020. Accessed August 30, 2021. https://patientengagementhit.com/news/most-patients-understand-clinical-notes-patient-data-access

7. Leveille SG et al. J Gen Intern Med. 2020 Dec;35(12):3510-6.

8. Walker J et al. J Med Internet Res. 2019 May. doi: 10.2196/13876.

9. Bell SK et al. BMJ Qual Saf. 2017 Apr;26(4):262-70.

10. Kachalia A, Mello MM. N Engl J Med. 2011 Apr;364(16):1564-72.

In July, I had my annual physical with my primary care physician, whose practice is based out of a large urban academic medical center. As she concluded my visit and directed me to the lab to have my blood work done, she said, “You’ll be receiving an automatic notice from MyChart by 9 am tomorrow that your medical records from today’s visit are available. I apologize if I have not yet had the opportunity to review them and enter my note, but you’ll get access to all of that, as well, as soon as it is in the system.”

Valerie Gutmann Koch

This sort of interaction is increasingly common across the United States as health care institutions implement policies and procedures to comply with new regulations promulgated by the Office of the National Coordinator for Health Information Technology (ONC), which went into effect on April 5, 2021. These rules were promulgated in accordance with the 21st Century Cures Act of 2016 (Cures Act).1 The regulations, known as the Interoperability, Information Blocking, and the ONC Health IT Certification Program, implement provisions of the Cures Act intended to “support the access, exchange, and use of electronic health information.” The rule is considered a significant step in the “open notes” movement, which is intended to make health care more transparent by enabling patients to access their medical records. The drafters of the ONC regulations have carved out certain exceptions to the information blocking rule. For example, one exception allows some patient information to be withheld where making that information available might cause physical harm to the patient or another person.

Thus far, few patients have been informed about the new regulation.2 By forbidding “information blocking,” the rule enables patients to more easily access and control their health information. Currently, the rule requires that physicians allow automatic access, without charge, to a patient’s own personal health information, including clinical notes, medication lists, laboratory results, and other diagnostic reports. Records must be provided “without delay,” or at least as soon as the physician’s office receives an electronic copy. In 2022, it will be required that access to even more of a patient’s personal electronic health record be provided in real-time through a patient portal and that electronic health information be shareable across third-party apps.

The Cures Act and the regulations governing its implementation highlight the inherent tension between two core principles of bioethical inquiry: autonomy and beneficence. The first principle, autonomy, champions allowing patient access and control over their own personal information. Beneficence, which is often expressed as paternalism, ensures that the experts are able to analyze and interpret data so that patients are in the best position to then make informed decisions.

With these principles in mind, arguments against open notes have generally fallen into three related categories. First, critics worry that immediate access to one’s medical record will increase patient anxiety caused by feelings of being inundated with complex medical information that patients may be ill-equipped to analyze and understand. This is a common refrain any time policies are implemented to improve medical information sharing. For example, critics of direct-to-consumer genetic testing caution that permitting unfettered access to complex information, particularly without an intermediary to interpret the data, could lead to confusion and poor medical choices.

There may be validity to this claim. One study found that 3% of patients reported feeling very confused when granted access to their medical notes.3 Another study concluded that direct release of medical test results “sometimes leads to unnecessary anxiety.”4 While the drafters of the ONC regulations have carved out certain exceptions to the information blocking rule, those exceptions do not allow for withholding of information because of concerns about patient anxiety or psychological harms.

The second common critique of open notes is that requiring release of all clinical notes will lead to clinician self-censorship, effectively muzzling or silencing the experts whose responsibility it is to objectively interpret results in order to provide the best care for their patients. Some have expressed concern that clinicians will be forced to “code” their records to avoid addressing “sensitive” subjects that might make patients feel offended or judged. This, in turn, might lead to less complete, reliable, or useful clinician communication.3

In fact, open notes has led to changes in the documentation process for some clinicians. They have reported modifying the way they document patient visits by changing their use of critical language and sensitive information.5 One study found that open notes led physicians to adjust “their language to avoid being perceived as critical of patients; omitting certain terms, such as ‘noncompliant’ and ‘patient denies’; and modifying how they document sensitive information.”3

In response, experts recommend focusing on precise and empathetic patient notes; in other words, the clinician should not write something in the note that they would not say directly to the patient. For example, they recommend that clinicians use precise language (for example, identifying the patient’s BMI) rather than using terms that could be offensive (for example, labeling the patient as “obese”).6 The shift to more empathetic note-taking could be seen less as a burden and more as a valuable tool in the shared decision-making endeavor: It could allow physicians to document both their clinical judgments and the patient’s values and preferences, which could lead to better medical decision-making.

Third, critics of open notes point to concerns about the burden it places on clinicians’ already limited time. The ONC rule requires automatic release of test results regardless of whether the clinician has had the opportunity to review them and offer their interpretation and insight. Because physician interpretation of results has known benefits,4 this puts additional pressure on clinicians to review results and enter notes in a timely manner. But physicians have reported that often open notes necessitates that they spend more time on documentation than they would otherwise.5

Despite critiques of open notes, the benefits of allowing patients access to their medical records have been repeatedly demonstrated. And research has shown that patients benefit from accessing open notes by allowing them to access and control their own personal medical information.5 Patients report that they understand and value the information provided to them in their medical records,7 and they feel empowered to participate in their medical decision-making. In surveys, patients report that reading their doctors’ notes is useful for taking care of their health and for remembering their care plans, understanding why a medication was prescribed, and reinforcing the need to take their medications and adhere to treatment plans.8

Importantly, open notes can increase patient engagement and patients’ trust in their physicians,9 thereby improving the doctor-patient relationship.3 And allowing patients to share their medical records with care partners enables supported decision-making, particularly for older and chronically ill individuals.3 Additionally, it is predicted that open notes may, in fact, decrease legal liability.9 By improving both trust in the doctor-patient relationship and safety, some experts expect that legal claims against clinicians will, in turn, decrease.10

The modern practice of medicine necessitates a more empathetic approach to clinical note-taking, even in the absence of regulation requiring it. As the regulations implementing the Cures Act roll out, patients will have easier, and more immediate, access to their medical records. Despite earlier hesitancy, clinicians are steadily beginning to support sharing access to notes with patients.5 Change can be hard. But the change expected of clinicians because of these new regulations appears to be less onerous than originally anticipated.

 

Prof. Koch is codirector of Health Law & Policy Institute and assistant professor at the University of Houston Law Center, as well as director of law and ethics at the MacLean Center for Clinical Medical Ethics at the University of Chicago. She has no disclosures.

 

This article was updated Sept. 9, 2021.

References

1. Fed Regist. 2020 May;85(85):25642-961.

2. The Petrie-Flom Center Staff. “New Rule Puts Medical Data in Patients’ Hands.” Bill of Health. July 12, 2021. Accessed August 30, 2021. https://blog.petrieflom.law.harvard.edu/2021/07/12/new-rule-puts-medical-data-in-patients-hands/.

3. Blease C et al. Ann Intern Med. 2021 Jan;174(1):101-2.

4. Pillemer F et al. PLoS One. 2016 Jun. doi: 10.1371/journal.pone.0154743.

5. DesRoches CM et al. JAMA Netw Open. 2020 Mar. doi: 10.1001/jamanetworkopen.2020.1753.

6. Heath S. “Most Patients Understand Clinical Notes, Patient Data Access.” Patient Engagement HIT. July 29, 2020. Accessed August 30, 2021. https://patientengagementhit.com/news/most-patients-understand-clinical-notes-patient-data-access

7. Leveille SG et al. J Gen Intern Med. 2020 Dec;35(12):3510-6.

8. Walker J et al. J Med Internet Res. 2019 May. doi: 10.2196/13876.

9. Bell SK et al. BMJ Qual Saf. 2017 Apr;26(4):262-70.

10. Kachalia A, Mello MM. N Engl J Med. 2011 Apr;364(16):1564-72.

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COVID-19 continues to complicate children’s mental health care

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The COVID-19 pandemic continues to impact child and adolescent mental health, and clinicians are learning as they go to develop strategies that address the challenges of providing both medical and mental health care to young patients, including those who test positive for COVID-19, according to Hani Talebi, PhD, director of pediatric psychology, and Jorge Ganem, MD, FAAP, director of pediatric hospital medicine, both of the University of Texas at Austin and Dell Children’s Medical Center.

Dr. Hani Talebi

In a presentation at the 2021 virtual Pediatric Hospital Medicine conference, Dr. Talebi and Dr. Ganem shared their experiences in identifying the impact of the pandemic on mental health services in a freestanding hospital, and synthesizing inpatient mental health care and medical care outside of a dedicated mental health unit.

Dr. Jorge Ganem

Mental health is a significant pediatric issue; approximately one in five children have a diagnosable mental or behavioral health problem, but nearly two-thirds get little or no help, Dr. Talebi said. “COVID-19 has only exacerbated these mental health challenges,” he said.

He noted that beginning in April 2020, the proportion of children’s mental health-related emergency department visits increased and remained elevated through the spring, summer, and fall of 2020, as families fearful of COVID-19 avoided regular hospital visits.

Data suggest that up to 50% of all adolescent psychiatric crises that led to inpatient admissions were related in some way to COVID-19, Dr. Talebi said. In addition, “individuals with a recent diagnosis of a mental health disorder are at increased risk for COVID-19 infection,” and the risk is even higher among women and African Americans, he said.

The past year significantly impacted the mental wellbeing of parents and children, Dr. Talebi said. He cited a June 2020 study in Pediatrics in which 27% of parents reported worsening mental health for themselves, and 14% reported worsening behavioral health for their children. Ongoing issues including food insecurity, loss of regular child care, and an overall “very disorienting experience in the day-to-day” compromised the mental health of families, Dr. Talebi emphasized. Children isolated at home were not meeting developmental milestones that organically occur when socializing with peers, parents didn’t know how to handle some of their children’s issues without support from schools, and many people were struggling with other preexisting health conditions, he said.

This confluence of factors helped drive a surge in emergency department visits, meaning longer wait times and concerns about meeting urgent medical and mental health needs while maintaining safety, he added.

Parents and children waited longer to seek care, and community hospitals such as Dell Children’s Medical Center were faced with children in the emergency department with crisis-level mental health issues, along with children already waiting in the ED to address medical emergencies. All these patients had to be tested for COVID-19 and managed accordingly, Dr. Talebi noted.

Dr. Talebi emphasized the need for clinically robust care of the children who were in isolation for 10 days on the medical unit, waiting to test negative. New protocols were created for social workers to conduct daily safety checks, and to develop regular schedules for screening, “so they are having an experience on the medical floors similar to what they would have in a mental health unit,” he said.

Dr. Ganem reflected on the logistical challenges of managing mental health care while observing COVID-19 safety protocols. “COVID-19 added a new wrinkle of isolation,” he said. As institutional guidelines on testing and isolation evolved, negative COVID-19 tests were required for admission to the mental health units both in the hospital and throughout the region. Patients who tested positive had to be quarantined for 10 days, at which time they could be admitted to a mental health unit if necessary, he said.

Dr. Ganem shared details of some strategies adopted by Dell Children’s. He explained that the COVID-19 psychiatry patient workflow started with an ED evaluation, followed by medical clearance and consideration for admission.

“There was significant coordination between the social worker in the emergency department and the psychiatry social worker,” he said.

Key elements of the treatment plan for children with positive COVID-19 tests included an “interprofessional huddle” to coordinate the plan of care, goals for admission, and goals for safety, Dr. Ganem said.

Patients who required admission were expected to have an initial length of stay of 72 hours, and those who tested positive for COVID-19 were admitted to a medical unit with COVID-19 isolation, he said.

Once a patient is admitted, an RN activates a suicide prevention pathway, and an interprofessional team meets to determine what patients need for safe and effective discharge, said Dr. Ganem. He cited the SAFE-T protocol (Suicide Assessment Five-step Evaluation and Triage) as one of the tools used to determine safe discharge criteria. Considerations on the SAFE-T list include family support, an established outpatient therapist and psychiatrist, no suicide attempts prior to the current admission, or a low lethality attempt, and access to partial hospitalization or intensive outpatient programs.

Patients who could not be discharged because of suicidality or inadequate support or concerns about safety at home were considered for inpatient admission. Patients with COVID-19–positive tests who had continued need for inpatient mental health services could be transferred to an inpatient mental health unit after a 10-day quarantine.

Overall, “this has been a continuum of lessons learned, with some things we know now that we didn’t know in April or May of 2020,” Dr. Ganem said. Early in the pandemic, the focus was on minimizing risk, securing personal protective equipment, and determining who provided services in a patient’s room. “We developed new paradigms on the fly,” he said, including the use of virtual visits, which included securing and cleaning devices, as well as learning how to use them in this setting,” he said.

More recently, the emphasis has been on providing services to patients before they need to visit the hospital, rather than automatically admitting any patients with suicidal ideation and a positive COVID-19 test, Dr. Ganem said.

Dr. Talebi and Dr. Ganem had no financial conflicts to disclose. The conference was sponsored by the Society of Hospital Medicine, the American Academy of Pediatrics, and the Academic Pediatric Association.

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The COVID-19 pandemic continues to impact child and adolescent mental health, and clinicians are learning as they go to develop strategies that address the challenges of providing both medical and mental health care to young patients, including those who test positive for COVID-19, according to Hani Talebi, PhD, director of pediatric psychology, and Jorge Ganem, MD, FAAP, director of pediatric hospital medicine, both of the University of Texas at Austin and Dell Children’s Medical Center.

Dr. Hani Talebi

In a presentation at the 2021 virtual Pediatric Hospital Medicine conference, Dr. Talebi and Dr. Ganem shared their experiences in identifying the impact of the pandemic on mental health services in a freestanding hospital, and synthesizing inpatient mental health care and medical care outside of a dedicated mental health unit.

Dr. Jorge Ganem

Mental health is a significant pediatric issue; approximately one in five children have a diagnosable mental or behavioral health problem, but nearly two-thirds get little or no help, Dr. Talebi said. “COVID-19 has only exacerbated these mental health challenges,” he said.

He noted that beginning in April 2020, the proportion of children’s mental health-related emergency department visits increased and remained elevated through the spring, summer, and fall of 2020, as families fearful of COVID-19 avoided regular hospital visits.

Data suggest that up to 50% of all adolescent psychiatric crises that led to inpatient admissions were related in some way to COVID-19, Dr. Talebi said. In addition, “individuals with a recent diagnosis of a mental health disorder are at increased risk for COVID-19 infection,” and the risk is even higher among women and African Americans, he said.

The past year significantly impacted the mental wellbeing of parents and children, Dr. Talebi said. He cited a June 2020 study in Pediatrics in which 27% of parents reported worsening mental health for themselves, and 14% reported worsening behavioral health for their children. Ongoing issues including food insecurity, loss of regular child care, and an overall “very disorienting experience in the day-to-day” compromised the mental health of families, Dr. Talebi emphasized. Children isolated at home were not meeting developmental milestones that organically occur when socializing with peers, parents didn’t know how to handle some of their children’s issues without support from schools, and many people were struggling with other preexisting health conditions, he said.

This confluence of factors helped drive a surge in emergency department visits, meaning longer wait times and concerns about meeting urgent medical and mental health needs while maintaining safety, he added.

Parents and children waited longer to seek care, and community hospitals such as Dell Children’s Medical Center were faced with children in the emergency department with crisis-level mental health issues, along with children already waiting in the ED to address medical emergencies. All these patients had to be tested for COVID-19 and managed accordingly, Dr. Talebi noted.

Dr. Talebi emphasized the need for clinically robust care of the children who were in isolation for 10 days on the medical unit, waiting to test negative. New protocols were created for social workers to conduct daily safety checks, and to develop regular schedules for screening, “so they are having an experience on the medical floors similar to what they would have in a mental health unit,” he said.

Dr. Ganem reflected on the logistical challenges of managing mental health care while observing COVID-19 safety protocols. “COVID-19 added a new wrinkle of isolation,” he said. As institutional guidelines on testing and isolation evolved, negative COVID-19 tests were required for admission to the mental health units both in the hospital and throughout the region. Patients who tested positive had to be quarantined for 10 days, at which time they could be admitted to a mental health unit if necessary, he said.

Dr. Ganem shared details of some strategies adopted by Dell Children’s. He explained that the COVID-19 psychiatry patient workflow started with an ED evaluation, followed by medical clearance and consideration for admission.

“There was significant coordination between the social worker in the emergency department and the psychiatry social worker,” he said.

Key elements of the treatment plan for children with positive COVID-19 tests included an “interprofessional huddle” to coordinate the plan of care, goals for admission, and goals for safety, Dr. Ganem said.

Patients who required admission were expected to have an initial length of stay of 72 hours, and those who tested positive for COVID-19 were admitted to a medical unit with COVID-19 isolation, he said.

Once a patient is admitted, an RN activates a suicide prevention pathway, and an interprofessional team meets to determine what patients need for safe and effective discharge, said Dr. Ganem. He cited the SAFE-T protocol (Suicide Assessment Five-step Evaluation and Triage) as one of the tools used to determine safe discharge criteria. Considerations on the SAFE-T list include family support, an established outpatient therapist and psychiatrist, no suicide attempts prior to the current admission, or a low lethality attempt, and access to partial hospitalization or intensive outpatient programs.

Patients who could not be discharged because of suicidality or inadequate support or concerns about safety at home were considered for inpatient admission. Patients with COVID-19–positive tests who had continued need for inpatient mental health services could be transferred to an inpatient mental health unit after a 10-day quarantine.

Overall, “this has been a continuum of lessons learned, with some things we know now that we didn’t know in April or May of 2020,” Dr. Ganem said. Early in the pandemic, the focus was on minimizing risk, securing personal protective equipment, and determining who provided services in a patient’s room. “We developed new paradigms on the fly,” he said, including the use of virtual visits, which included securing and cleaning devices, as well as learning how to use them in this setting,” he said.

More recently, the emphasis has been on providing services to patients before they need to visit the hospital, rather than automatically admitting any patients with suicidal ideation and a positive COVID-19 test, Dr. Ganem said.

Dr. Talebi and Dr. Ganem had no financial conflicts to disclose. The conference was sponsored by the Society of Hospital Medicine, the American Academy of Pediatrics, and the Academic Pediatric Association.

The COVID-19 pandemic continues to impact child and adolescent mental health, and clinicians are learning as they go to develop strategies that address the challenges of providing both medical and mental health care to young patients, including those who test positive for COVID-19, according to Hani Talebi, PhD, director of pediatric psychology, and Jorge Ganem, MD, FAAP, director of pediatric hospital medicine, both of the University of Texas at Austin and Dell Children’s Medical Center.

Dr. Hani Talebi

In a presentation at the 2021 virtual Pediatric Hospital Medicine conference, Dr. Talebi and Dr. Ganem shared their experiences in identifying the impact of the pandemic on mental health services in a freestanding hospital, and synthesizing inpatient mental health care and medical care outside of a dedicated mental health unit.

Dr. Jorge Ganem

Mental health is a significant pediatric issue; approximately one in five children have a diagnosable mental or behavioral health problem, but nearly two-thirds get little or no help, Dr. Talebi said. “COVID-19 has only exacerbated these mental health challenges,” he said.

He noted that beginning in April 2020, the proportion of children’s mental health-related emergency department visits increased and remained elevated through the spring, summer, and fall of 2020, as families fearful of COVID-19 avoided regular hospital visits.

Data suggest that up to 50% of all adolescent psychiatric crises that led to inpatient admissions were related in some way to COVID-19, Dr. Talebi said. In addition, “individuals with a recent diagnosis of a mental health disorder are at increased risk for COVID-19 infection,” and the risk is even higher among women and African Americans, he said.

The past year significantly impacted the mental wellbeing of parents and children, Dr. Talebi said. He cited a June 2020 study in Pediatrics in which 27% of parents reported worsening mental health for themselves, and 14% reported worsening behavioral health for their children. Ongoing issues including food insecurity, loss of regular child care, and an overall “very disorienting experience in the day-to-day” compromised the mental health of families, Dr. Talebi emphasized. Children isolated at home were not meeting developmental milestones that organically occur when socializing with peers, parents didn’t know how to handle some of their children’s issues without support from schools, and many people were struggling with other preexisting health conditions, he said.

This confluence of factors helped drive a surge in emergency department visits, meaning longer wait times and concerns about meeting urgent medical and mental health needs while maintaining safety, he added.

Parents and children waited longer to seek care, and community hospitals such as Dell Children’s Medical Center were faced with children in the emergency department with crisis-level mental health issues, along with children already waiting in the ED to address medical emergencies. All these patients had to be tested for COVID-19 and managed accordingly, Dr. Talebi noted.

Dr. Talebi emphasized the need for clinically robust care of the children who were in isolation for 10 days on the medical unit, waiting to test negative. New protocols were created for social workers to conduct daily safety checks, and to develop regular schedules for screening, “so they are having an experience on the medical floors similar to what they would have in a mental health unit,” he said.

Dr. Ganem reflected on the logistical challenges of managing mental health care while observing COVID-19 safety protocols. “COVID-19 added a new wrinkle of isolation,” he said. As institutional guidelines on testing and isolation evolved, negative COVID-19 tests were required for admission to the mental health units both in the hospital and throughout the region. Patients who tested positive had to be quarantined for 10 days, at which time they could be admitted to a mental health unit if necessary, he said.

Dr. Ganem shared details of some strategies adopted by Dell Children’s. He explained that the COVID-19 psychiatry patient workflow started with an ED evaluation, followed by medical clearance and consideration for admission.

“There was significant coordination between the social worker in the emergency department and the psychiatry social worker,” he said.

Key elements of the treatment plan for children with positive COVID-19 tests included an “interprofessional huddle” to coordinate the plan of care, goals for admission, and goals for safety, Dr. Ganem said.

Patients who required admission were expected to have an initial length of stay of 72 hours, and those who tested positive for COVID-19 were admitted to a medical unit with COVID-19 isolation, he said.

Once a patient is admitted, an RN activates a suicide prevention pathway, and an interprofessional team meets to determine what patients need for safe and effective discharge, said Dr. Ganem. He cited the SAFE-T protocol (Suicide Assessment Five-step Evaluation and Triage) as one of the tools used to determine safe discharge criteria. Considerations on the SAFE-T list include family support, an established outpatient therapist and psychiatrist, no suicide attempts prior to the current admission, or a low lethality attempt, and access to partial hospitalization or intensive outpatient programs.

Patients who could not be discharged because of suicidality or inadequate support or concerns about safety at home were considered for inpatient admission. Patients with COVID-19–positive tests who had continued need for inpatient mental health services could be transferred to an inpatient mental health unit after a 10-day quarantine.

Overall, “this has been a continuum of lessons learned, with some things we know now that we didn’t know in April or May of 2020,” Dr. Ganem said. Early in the pandemic, the focus was on minimizing risk, securing personal protective equipment, and determining who provided services in a patient’s room. “We developed new paradigms on the fly,” he said, including the use of virtual visits, which included securing and cleaning devices, as well as learning how to use them in this setting,” he said.

More recently, the emphasis has been on providing services to patients before they need to visit the hospital, rather than automatically admitting any patients with suicidal ideation and a positive COVID-19 test, Dr. Ganem said.

Dr. Talebi and Dr. Ganem had no financial conflicts to disclose. The conference was sponsored by the Society of Hospital Medicine, the American Academy of Pediatrics, and the Academic Pediatric Association.

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Iron deficiency in pregnancy is common, yet many aren’t being screened for it

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Many pregnant patients are not being screened for iron deficiency despite it being a common cause of anemia in pregnancy that could increase the risk of maternal and infant death.

Researchers analyzed data from 44,552 pregnant patients in Ontario, Canada, collected between 2013 and 2018 to determine the prevalence of ferritin testing, the standard test for iron deficiency, over the course of 5 years.

Their study, published in Blood Advances, revealed that only 59.4% of pregnant persons received a ferritin test, the standard test for iron deficiency. Of those pregnant persons, 25.2% were iron insufficient and 52.8% were iron deficient at least once during pregnancy.

They also found that 71% of these iron tests were ordered during the first trimester, when the risk of iron deficiency is lowest.

“We are not only missing a very large proportion of women who are iron deficient going into pregnancy, but we’re missing those that become iron deficient later on in their pregnancies,” study author Dr. Jennifer Teichman, hematology resident at the University of Toronto, said in an interview. Researchers said iron deficiency during pregnancy is associated with maternal fatigue, cognitive dysfunction, depression, low birth weight, and poor brain development of the child.

Dr. Teichman explained that if iron deficiency during pregnancy is identified early enough, doctors would have enough time to treat the condition with iron supplements before the patient goes into delivery. She also explained prenatal vitamins, which contain some iron, do not contain enough of the mineral to fix iron deficiency.

“One really important point is that the amount of iron contained in a prenatal vitamin is really low,” Dr. Teichman explained. “It’s enough to make up the difference of the additional iron that she needs to sustain her pregnancy, but it’s not enough to treat a woman who’s already got low iron going into pregnancy. So there’s a difference between a prenatal vitamin and true iron supplementation.”

Researchers also found that those who came from a household with a low annual income were even less likely to receive a ferritin test, which was a troubling finding since women of lower socioeconomic status are more likely to be iron deficient in pregnancy. 

“[This] says something about how we as health care providers are contributing to this gap in care,” Dr. Teichman said. “Women of lower socioeconomic status sort of have a triple whammy: They’re more likely to be iron deficient, they’re less likely to have it diagnosed, and they’re less likely to have it corrected.”

Dr. Teichman and her colleagues took a unique approach by looking at isolated ferritin levels as opposed to complete blood counts, which is the typical screening for anemia in pregnancy, said Lissette Tanner, MD, MPH, FACOG, who was not involved with the study.

“Those who meet the criteria for anemia should be evaluated for the cause with initial suspicion for iron deficiency anemia, as that is the most common etiology,” said Dr. Tanner, assistant professor of gynecology and obstetrics at Emory University, Atlanta.

The Centers for Disease Control and Prevention recommends screening for iron deficiency anemia in pregnant persons, in addition to universal iron supplementation to meet the iron requirements of pregnancy.  

Additionally, the American College of Obstetricians and Gynecologists recommends that all pregnant persons be screened for anemia with a complete blood count in the first trimester and again between 24 and 28 weeks of pregnancy.

However, iron deficiency is completely missed by ACOG’s recommendations, said Michael Auerbach, MD, of the department of medicine, Georgetown University, Washington. 

“They recommend a [complete blood count] on all presenting pregnant women, but they do not recommend iron parameters, including a ferritin test, unless the mother is anemic,” said Dr. Auerbach, who was not involved in the study. “I think those guidelines are in need of revision.”

Dr. Teichman hopes her team’s findings will motivate change in obstetric and hematologic guidelines that recommend routine prenatal testing.

“I think ferritin should be a part of routine prenatal testing,” Dr. Teichman said. “And I also think that patients need to be empowered to ask what their iron levels are in pregnancy and providers need to know what a normal iron level is.”

None of the experts interviewed for this story had financial conflicts of interest.

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Many pregnant patients are not being screened for iron deficiency despite it being a common cause of anemia in pregnancy that could increase the risk of maternal and infant death.

Researchers analyzed data from 44,552 pregnant patients in Ontario, Canada, collected between 2013 and 2018 to determine the prevalence of ferritin testing, the standard test for iron deficiency, over the course of 5 years.

Their study, published in Blood Advances, revealed that only 59.4% of pregnant persons received a ferritin test, the standard test for iron deficiency. Of those pregnant persons, 25.2% were iron insufficient and 52.8% were iron deficient at least once during pregnancy.

They also found that 71% of these iron tests were ordered during the first trimester, when the risk of iron deficiency is lowest.

“We are not only missing a very large proportion of women who are iron deficient going into pregnancy, but we’re missing those that become iron deficient later on in their pregnancies,” study author Dr. Jennifer Teichman, hematology resident at the University of Toronto, said in an interview. Researchers said iron deficiency during pregnancy is associated with maternal fatigue, cognitive dysfunction, depression, low birth weight, and poor brain development of the child.

Dr. Teichman explained that if iron deficiency during pregnancy is identified early enough, doctors would have enough time to treat the condition with iron supplements before the patient goes into delivery. She also explained prenatal vitamins, which contain some iron, do not contain enough of the mineral to fix iron deficiency.

“One really important point is that the amount of iron contained in a prenatal vitamin is really low,” Dr. Teichman explained. “It’s enough to make up the difference of the additional iron that she needs to sustain her pregnancy, but it’s not enough to treat a woman who’s already got low iron going into pregnancy. So there’s a difference between a prenatal vitamin and true iron supplementation.”

Researchers also found that those who came from a household with a low annual income were even less likely to receive a ferritin test, which was a troubling finding since women of lower socioeconomic status are more likely to be iron deficient in pregnancy. 

“[This] says something about how we as health care providers are contributing to this gap in care,” Dr. Teichman said. “Women of lower socioeconomic status sort of have a triple whammy: They’re more likely to be iron deficient, they’re less likely to have it diagnosed, and they’re less likely to have it corrected.”

Dr. Teichman and her colleagues took a unique approach by looking at isolated ferritin levels as opposed to complete blood counts, which is the typical screening for anemia in pregnancy, said Lissette Tanner, MD, MPH, FACOG, who was not involved with the study.

“Those who meet the criteria for anemia should be evaluated for the cause with initial suspicion for iron deficiency anemia, as that is the most common etiology,” said Dr. Tanner, assistant professor of gynecology and obstetrics at Emory University, Atlanta.

The Centers for Disease Control and Prevention recommends screening for iron deficiency anemia in pregnant persons, in addition to universal iron supplementation to meet the iron requirements of pregnancy.  

Additionally, the American College of Obstetricians and Gynecologists recommends that all pregnant persons be screened for anemia with a complete blood count in the first trimester and again between 24 and 28 weeks of pregnancy.

However, iron deficiency is completely missed by ACOG’s recommendations, said Michael Auerbach, MD, of the department of medicine, Georgetown University, Washington. 

“They recommend a [complete blood count] on all presenting pregnant women, but they do not recommend iron parameters, including a ferritin test, unless the mother is anemic,” said Dr. Auerbach, who was not involved in the study. “I think those guidelines are in need of revision.”

Dr. Teichman hopes her team’s findings will motivate change in obstetric and hematologic guidelines that recommend routine prenatal testing.

“I think ferritin should be a part of routine prenatal testing,” Dr. Teichman said. “And I also think that patients need to be empowered to ask what their iron levels are in pregnancy and providers need to know what a normal iron level is.”

None of the experts interviewed for this story had financial conflicts of interest.

Many pregnant patients are not being screened for iron deficiency despite it being a common cause of anemia in pregnancy that could increase the risk of maternal and infant death.

Researchers analyzed data from 44,552 pregnant patients in Ontario, Canada, collected between 2013 and 2018 to determine the prevalence of ferritin testing, the standard test for iron deficiency, over the course of 5 years.

Their study, published in Blood Advances, revealed that only 59.4% of pregnant persons received a ferritin test, the standard test for iron deficiency. Of those pregnant persons, 25.2% were iron insufficient and 52.8% were iron deficient at least once during pregnancy.

They also found that 71% of these iron tests were ordered during the first trimester, when the risk of iron deficiency is lowest.

“We are not only missing a very large proportion of women who are iron deficient going into pregnancy, but we’re missing those that become iron deficient later on in their pregnancies,” study author Dr. Jennifer Teichman, hematology resident at the University of Toronto, said in an interview. Researchers said iron deficiency during pregnancy is associated with maternal fatigue, cognitive dysfunction, depression, low birth weight, and poor brain development of the child.

Dr. Teichman explained that if iron deficiency during pregnancy is identified early enough, doctors would have enough time to treat the condition with iron supplements before the patient goes into delivery. She also explained prenatal vitamins, which contain some iron, do not contain enough of the mineral to fix iron deficiency.

“One really important point is that the amount of iron contained in a prenatal vitamin is really low,” Dr. Teichman explained. “It’s enough to make up the difference of the additional iron that she needs to sustain her pregnancy, but it’s not enough to treat a woman who’s already got low iron going into pregnancy. So there’s a difference between a prenatal vitamin and true iron supplementation.”

Researchers also found that those who came from a household with a low annual income were even less likely to receive a ferritin test, which was a troubling finding since women of lower socioeconomic status are more likely to be iron deficient in pregnancy. 

“[This] says something about how we as health care providers are contributing to this gap in care,” Dr. Teichman said. “Women of lower socioeconomic status sort of have a triple whammy: They’re more likely to be iron deficient, they’re less likely to have it diagnosed, and they’re less likely to have it corrected.”

Dr. Teichman and her colleagues took a unique approach by looking at isolated ferritin levels as opposed to complete blood counts, which is the typical screening for anemia in pregnancy, said Lissette Tanner, MD, MPH, FACOG, who was not involved with the study.

“Those who meet the criteria for anemia should be evaluated for the cause with initial suspicion for iron deficiency anemia, as that is the most common etiology,” said Dr. Tanner, assistant professor of gynecology and obstetrics at Emory University, Atlanta.

The Centers for Disease Control and Prevention recommends screening for iron deficiency anemia in pregnant persons, in addition to universal iron supplementation to meet the iron requirements of pregnancy.  

Additionally, the American College of Obstetricians and Gynecologists recommends that all pregnant persons be screened for anemia with a complete blood count in the first trimester and again between 24 and 28 weeks of pregnancy.

However, iron deficiency is completely missed by ACOG’s recommendations, said Michael Auerbach, MD, of the department of medicine, Georgetown University, Washington. 

“They recommend a [complete blood count] on all presenting pregnant women, but they do not recommend iron parameters, including a ferritin test, unless the mother is anemic,” said Dr. Auerbach, who was not involved in the study. “I think those guidelines are in need of revision.”

Dr. Teichman hopes her team’s findings will motivate change in obstetric and hematologic guidelines that recommend routine prenatal testing.

“I think ferritin should be a part of routine prenatal testing,” Dr. Teichman said. “And I also think that patients need to be empowered to ask what their iron levels are in pregnancy and providers need to know what a normal iron level is.”

None of the experts interviewed for this story had financial conflicts of interest.

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Clinical genetic testing for skin disorders continues to advance

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With more than 300 genetic skin disorders involving more than 1,000 genes and hundreds of genetic tests available on the market, it can be daunting for health care providers and families of pediatric patients to navigate the landscape.

Dr. Gabriele Richard

“Testing options range from targeted variant testing and single-gene testing to exome and genome sequencing,” Gabriele Richard, MD, said at the annual meeting of the Society for Pediatric Dermatology. “It is not always easy to determine which testing is right.”

Increasingly, clinical genomic tests, including exome and genome sequencing, are used for patients with complex phenotypes, and possibly multiple disorders, who might have no diagnosis despite extensive prior testing, said Dr. Richard, medical director at Gaithersburg, Md.–based GeneDx., a molecular diagnostic laboratory that performs comprehensive testing for rare genetic disorders. These tests are also being used more for first-line testing in critically ill patients in the neonatal and pediatric intensive care units, and “have heralded a whole new era of gene and disease discovery,” she added.

Targeted variant testing is used for known familial variants, to test family members for carrier status and segregation, and to make a prenatal diagnosis, she said. Single-gene testing is available for most genes and has its place for conditions that can be clinically well-recognized, such as ichthyosis vulgaris, Darier disease, or Papillon-Lefèvre syndrome.

Specific tests for identifying gene deletions or duplications are exon-level microarrays, multiplex ligation-dependent probe amplification (MLPA), and chromosomal microarray analysis. “The latter has been successful in identifying diseases causing chromosomal abnormalities in over 10% of cases overall,” Dr. Richard said. An example of a skin disorder is X-linked ichthyosis caused by a deletion of the steroid sulfatase locus in more than 95% of affected males, she said.

“However, the current staple of molecular diagnostic testing is multigene next-generation sequencing (NGS) panels, which allow you to interrogate two to hundreds of genes concurrently, including sequencing and deletion duplication testing.” These tests are the most cost effective, she said, and are available for almost any genodermatosis or group of disorders with overlapping phenotypes, such as albinism or ichthyosis, epidermolysis bullosa and skin fragility, ectodermal dysplasia, or porphyria. According to Dr. Richard, the diagnostic outcomes of NGS panels mainly depend on test indication, panel size and gene curation, age of onset, and prevailing inheritance pattern of disorders.

Her recommended criteria for distinguishing the myriad of available NGS panels include checking gene content, technical sensitivity of sequencing and deletion/duplication analysis, quality of variant interpretation and reporting, turn-around time, and available familial follow-up testing. “If a family might consider future prenatal diagnosis, choose the lab that performs prenatal and diagnostic testing,” Dr. Richard said. “Equally important are client services such as ease of ordering, insurance coverage, and the ability to determine out-of-pocket cost to patients.”

Resources that enable consumers to compare panel content, methodology, turnaround time, and other parameters include the Genetic Testing Registry (GTR) operated by the National Center for Biotechnology Information, and Concert Genetics, a genetic testing company. The National Society of Genetic Counselors also offers a searchable database for finding a genetic counselor.



Exome sequencing includes the coding sequences of about 20,000 genes and has an average depth of 50 to about 150 reads. “It is a phenotype-driven test where only select variants are being reported fitting the phenotype,” Dr. Richard said. “The outcome of exome and genome sequencing much depends on optimization of bioinformatic pipelines and tools.” Besides small sequence variants, exome sequencing is able to identify a variety of different types of disease-causing variants, such as gene copy number variants seen in about 6% of positive cases, mosaicism, regions of homozygosity, uniparental disomy, and other unusual events and is cost effective.

Whole-genome sequencing, meanwhile, includes the entire genome, particularly noncoding regions, and has an average depth of more than 30 reads. “It’s based on single-molecule sequencing, has longer reads and more uniform coverage, compared to exome sequencing,” she said. “Higher cost, variant interpretation, and lack of coverage by payers are still presenting challenges for genome sequencing.” Genome sequencing can be done in a day or less.

According to diagnostic outcomes based on 280,000 individuals including 125,000 probands from GeneDx data, a definitive diagnosis was made in 26% of probands, of which 2.8% had more than one diagnostic finding and 1.8% had actionable secondary findings. In addition, 7% of the variants were found in candidate genes; 31% of probands had variants of uncertain significance, while 36% tested negative. “Nevertheless, the diagnostic yield of exome sequencing depends on the phenotype and cohort studied,” Dr. Richard continued.

At her company, she said, the highest positive rate is for multiple congenital anomalies (34%), skeletal system abnormalities (30%), and nervous system abnormalities (29%). Trio testing – the concurrent analysis of both biological parents and proband for all genes – “is a critical factor for success,” she added. “It not only improves the variant calling because we have three times the data and increases test sensitivity, it also provides more certain results, determines inheritance and allows for detection of parental mosaicism.”

According to Dr. Richard, trio testing has a one-third higher diagnostic rate than sequencing of the proband alone. Citing a published prospective study that compiled data from eight different exome- and genome-sequencing studies in critically ill neonates and children, trio testing made it possible to make a genetic diagnosis in up to 58% of children.

Whole-genome sequencing is estimated to have a 5%-10% higher diagnostic rate than exome sequencing. “However, we are still a ways away from using it as a routine diagnostic test for all test indications,” Dr. Richard said. “Automation, special bioinformatics algorithms and databases, and combination of genome sequencing with mRNA sequencing are being explored and built to further improve the diagnostic yield.”

Dr. Richard had no disclosures other than being an employee of GeneDx.

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With more than 300 genetic skin disorders involving more than 1,000 genes and hundreds of genetic tests available on the market, it can be daunting for health care providers and families of pediatric patients to navigate the landscape.

Dr. Gabriele Richard

“Testing options range from targeted variant testing and single-gene testing to exome and genome sequencing,” Gabriele Richard, MD, said at the annual meeting of the Society for Pediatric Dermatology. “It is not always easy to determine which testing is right.”

Increasingly, clinical genomic tests, including exome and genome sequencing, are used for patients with complex phenotypes, and possibly multiple disorders, who might have no diagnosis despite extensive prior testing, said Dr. Richard, medical director at Gaithersburg, Md.–based GeneDx., a molecular diagnostic laboratory that performs comprehensive testing for rare genetic disorders. These tests are also being used more for first-line testing in critically ill patients in the neonatal and pediatric intensive care units, and “have heralded a whole new era of gene and disease discovery,” she added.

Targeted variant testing is used for known familial variants, to test family members for carrier status and segregation, and to make a prenatal diagnosis, she said. Single-gene testing is available for most genes and has its place for conditions that can be clinically well-recognized, such as ichthyosis vulgaris, Darier disease, or Papillon-Lefèvre syndrome.

Specific tests for identifying gene deletions or duplications are exon-level microarrays, multiplex ligation-dependent probe amplification (MLPA), and chromosomal microarray analysis. “The latter has been successful in identifying diseases causing chromosomal abnormalities in over 10% of cases overall,” Dr. Richard said. An example of a skin disorder is X-linked ichthyosis caused by a deletion of the steroid sulfatase locus in more than 95% of affected males, she said.

“However, the current staple of molecular diagnostic testing is multigene next-generation sequencing (NGS) panels, which allow you to interrogate two to hundreds of genes concurrently, including sequencing and deletion duplication testing.” These tests are the most cost effective, she said, and are available for almost any genodermatosis or group of disorders with overlapping phenotypes, such as albinism or ichthyosis, epidermolysis bullosa and skin fragility, ectodermal dysplasia, or porphyria. According to Dr. Richard, the diagnostic outcomes of NGS panels mainly depend on test indication, panel size and gene curation, age of onset, and prevailing inheritance pattern of disorders.

Her recommended criteria for distinguishing the myriad of available NGS panels include checking gene content, technical sensitivity of sequencing and deletion/duplication analysis, quality of variant interpretation and reporting, turn-around time, and available familial follow-up testing. “If a family might consider future prenatal diagnosis, choose the lab that performs prenatal and diagnostic testing,” Dr. Richard said. “Equally important are client services such as ease of ordering, insurance coverage, and the ability to determine out-of-pocket cost to patients.”

Resources that enable consumers to compare panel content, methodology, turnaround time, and other parameters include the Genetic Testing Registry (GTR) operated by the National Center for Biotechnology Information, and Concert Genetics, a genetic testing company. The National Society of Genetic Counselors also offers a searchable database for finding a genetic counselor.



Exome sequencing includes the coding sequences of about 20,000 genes and has an average depth of 50 to about 150 reads. “It is a phenotype-driven test where only select variants are being reported fitting the phenotype,” Dr. Richard said. “The outcome of exome and genome sequencing much depends on optimization of bioinformatic pipelines and tools.” Besides small sequence variants, exome sequencing is able to identify a variety of different types of disease-causing variants, such as gene copy number variants seen in about 6% of positive cases, mosaicism, regions of homozygosity, uniparental disomy, and other unusual events and is cost effective.

Whole-genome sequencing, meanwhile, includes the entire genome, particularly noncoding regions, and has an average depth of more than 30 reads. “It’s based on single-molecule sequencing, has longer reads and more uniform coverage, compared to exome sequencing,” she said. “Higher cost, variant interpretation, and lack of coverage by payers are still presenting challenges for genome sequencing.” Genome sequencing can be done in a day or less.

According to diagnostic outcomes based on 280,000 individuals including 125,000 probands from GeneDx data, a definitive diagnosis was made in 26% of probands, of which 2.8% had more than one diagnostic finding and 1.8% had actionable secondary findings. In addition, 7% of the variants were found in candidate genes; 31% of probands had variants of uncertain significance, while 36% tested negative. “Nevertheless, the diagnostic yield of exome sequencing depends on the phenotype and cohort studied,” Dr. Richard continued.

At her company, she said, the highest positive rate is for multiple congenital anomalies (34%), skeletal system abnormalities (30%), and nervous system abnormalities (29%). Trio testing – the concurrent analysis of both biological parents and proband for all genes – “is a critical factor for success,” she added. “It not only improves the variant calling because we have three times the data and increases test sensitivity, it also provides more certain results, determines inheritance and allows for detection of parental mosaicism.”

According to Dr. Richard, trio testing has a one-third higher diagnostic rate than sequencing of the proband alone. Citing a published prospective study that compiled data from eight different exome- and genome-sequencing studies in critically ill neonates and children, trio testing made it possible to make a genetic diagnosis in up to 58% of children.

Whole-genome sequencing is estimated to have a 5%-10% higher diagnostic rate than exome sequencing. “However, we are still a ways away from using it as a routine diagnostic test for all test indications,” Dr. Richard said. “Automation, special bioinformatics algorithms and databases, and combination of genome sequencing with mRNA sequencing are being explored and built to further improve the diagnostic yield.”

Dr. Richard had no disclosures other than being an employee of GeneDx.

With more than 300 genetic skin disorders involving more than 1,000 genes and hundreds of genetic tests available on the market, it can be daunting for health care providers and families of pediatric patients to navigate the landscape.

Dr. Gabriele Richard

“Testing options range from targeted variant testing and single-gene testing to exome and genome sequencing,” Gabriele Richard, MD, said at the annual meeting of the Society for Pediatric Dermatology. “It is not always easy to determine which testing is right.”

Increasingly, clinical genomic tests, including exome and genome sequencing, are used for patients with complex phenotypes, and possibly multiple disorders, who might have no diagnosis despite extensive prior testing, said Dr. Richard, medical director at Gaithersburg, Md.–based GeneDx., a molecular diagnostic laboratory that performs comprehensive testing for rare genetic disorders. These tests are also being used more for first-line testing in critically ill patients in the neonatal and pediatric intensive care units, and “have heralded a whole new era of gene and disease discovery,” she added.

Targeted variant testing is used for known familial variants, to test family members for carrier status and segregation, and to make a prenatal diagnosis, she said. Single-gene testing is available for most genes and has its place for conditions that can be clinically well-recognized, such as ichthyosis vulgaris, Darier disease, or Papillon-Lefèvre syndrome.

Specific tests for identifying gene deletions or duplications are exon-level microarrays, multiplex ligation-dependent probe amplification (MLPA), and chromosomal microarray analysis. “The latter has been successful in identifying diseases causing chromosomal abnormalities in over 10% of cases overall,” Dr. Richard said. An example of a skin disorder is X-linked ichthyosis caused by a deletion of the steroid sulfatase locus in more than 95% of affected males, she said.

“However, the current staple of molecular diagnostic testing is multigene next-generation sequencing (NGS) panels, which allow you to interrogate two to hundreds of genes concurrently, including sequencing and deletion duplication testing.” These tests are the most cost effective, she said, and are available for almost any genodermatosis or group of disorders with overlapping phenotypes, such as albinism or ichthyosis, epidermolysis bullosa and skin fragility, ectodermal dysplasia, or porphyria. According to Dr. Richard, the diagnostic outcomes of NGS panels mainly depend on test indication, panel size and gene curation, age of onset, and prevailing inheritance pattern of disorders.

Her recommended criteria for distinguishing the myriad of available NGS panels include checking gene content, technical sensitivity of sequencing and deletion/duplication analysis, quality of variant interpretation and reporting, turn-around time, and available familial follow-up testing. “If a family might consider future prenatal diagnosis, choose the lab that performs prenatal and diagnostic testing,” Dr. Richard said. “Equally important are client services such as ease of ordering, insurance coverage, and the ability to determine out-of-pocket cost to patients.”

Resources that enable consumers to compare panel content, methodology, turnaround time, and other parameters include the Genetic Testing Registry (GTR) operated by the National Center for Biotechnology Information, and Concert Genetics, a genetic testing company. The National Society of Genetic Counselors also offers a searchable database for finding a genetic counselor.



Exome sequencing includes the coding sequences of about 20,000 genes and has an average depth of 50 to about 150 reads. “It is a phenotype-driven test where only select variants are being reported fitting the phenotype,” Dr. Richard said. “The outcome of exome and genome sequencing much depends on optimization of bioinformatic pipelines and tools.” Besides small sequence variants, exome sequencing is able to identify a variety of different types of disease-causing variants, such as gene copy number variants seen in about 6% of positive cases, mosaicism, regions of homozygosity, uniparental disomy, and other unusual events and is cost effective.

Whole-genome sequencing, meanwhile, includes the entire genome, particularly noncoding regions, and has an average depth of more than 30 reads. “It’s based on single-molecule sequencing, has longer reads and more uniform coverage, compared to exome sequencing,” she said. “Higher cost, variant interpretation, and lack of coverage by payers are still presenting challenges for genome sequencing.” Genome sequencing can be done in a day or less.

According to diagnostic outcomes based on 280,000 individuals including 125,000 probands from GeneDx data, a definitive diagnosis was made in 26% of probands, of which 2.8% had more than one diagnostic finding and 1.8% had actionable secondary findings. In addition, 7% of the variants were found in candidate genes; 31% of probands had variants of uncertain significance, while 36% tested negative. “Nevertheless, the diagnostic yield of exome sequencing depends on the phenotype and cohort studied,” Dr. Richard continued.

At her company, she said, the highest positive rate is for multiple congenital anomalies (34%), skeletal system abnormalities (30%), and nervous system abnormalities (29%). Trio testing – the concurrent analysis of both biological parents and proband for all genes – “is a critical factor for success,” she added. “It not only improves the variant calling because we have three times the data and increases test sensitivity, it also provides more certain results, determines inheritance and allows for detection of parental mosaicism.”

According to Dr. Richard, trio testing has a one-third higher diagnostic rate than sequencing of the proband alone. Citing a published prospective study that compiled data from eight different exome- and genome-sequencing studies in critically ill neonates and children, trio testing made it possible to make a genetic diagnosis in up to 58% of children.

Whole-genome sequencing is estimated to have a 5%-10% higher diagnostic rate than exome sequencing. “However, we are still a ways away from using it as a routine diagnostic test for all test indications,” Dr. Richard said. “Automation, special bioinformatics algorithms and databases, and combination of genome sequencing with mRNA sequencing are being explored and built to further improve the diagnostic yield.”

Dr. Richard had no disclosures other than being an employee of GeneDx.

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New gene variant found for hereditary bleeding disorder

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Clinical symptoms in a 19-year-old Vietnamese woman who experienced several life-threatening bleeding events, including ovarian hemorrhage, led to the discovery of a novel gene variant causing her bleeding disorder.

Blood analysis of the patients showed decreased fibrinogen level with “markedly elevated fibrinogen/fibrin degradation products and D-dimer levels.” Attempts to treat the patient with hemostatic surgery, administration of several medications, including nafamostat mesylate, tranexamic acid, and unfractionated heparin, produced no correction of her coagulation abnormalities, and the patient experienced repeated hemorrhagic events, according to researchers from the Tokyo Saiseikai Central Hospital, Japan, and colleagues.

However, the researchers found that treatment with recombinant human thrombomodulin (rhTM) remarkably improved the patient’s pathophysiology, according to the results of a case study reported in Blood Advances.
 

Genetic analysis

Upon screening and sequencing of the patient’s thrombomodulin gene, a previously unreported homozygous variation, c.793T>A (p.Cys265Ser) was discovered. Under normal circumstances, the Cys265 residue forms one of three disulfide bonds in the epidermal growth factor (EGF)-like domain 1 of thrombomoduliin (TM), according to the researchers.

However, transient expression analysis of the patient’s mutation using COS-1 cells demonstrated markedly reduced expression of TM-Cys265Ser on the plasma membrane relative to wild-type TM. The TM-Cys265Ser mutant was intracellularly degraded, probably due to EGF-like domain 1 misfolding, according to the researchers and the reduced expression of TM on the endothelial cell membrane may be responsible for the disseminated intravascular coagulation-like symptoms observed in the patient, the speculated.

“The clinical symptoms of the patient in this study were characterized by recurrent hemorrhage, indicating that TM-C265S mainly causes hyperfibrinolysis rather than hypercoagulation. The C265S mutation may disrupt the timely and delicate balance between coagulation and fibrinolysis,” the researchers suggested.

The authors reported that they had no conflicts of interest.

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Clinical symptoms in a 19-year-old Vietnamese woman who experienced several life-threatening bleeding events, including ovarian hemorrhage, led to the discovery of a novel gene variant causing her bleeding disorder.

Blood analysis of the patients showed decreased fibrinogen level with “markedly elevated fibrinogen/fibrin degradation products and D-dimer levels.” Attempts to treat the patient with hemostatic surgery, administration of several medications, including nafamostat mesylate, tranexamic acid, and unfractionated heparin, produced no correction of her coagulation abnormalities, and the patient experienced repeated hemorrhagic events, according to researchers from the Tokyo Saiseikai Central Hospital, Japan, and colleagues.

However, the researchers found that treatment with recombinant human thrombomodulin (rhTM) remarkably improved the patient’s pathophysiology, according to the results of a case study reported in Blood Advances.
 

Genetic analysis

Upon screening and sequencing of the patient’s thrombomodulin gene, a previously unreported homozygous variation, c.793T>A (p.Cys265Ser) was discovered. Under normal circumstances, the Cys265 residue forms one of three disulfide bonds in the epidermal growth factor (EGF)-like domain 1 of thrombomoduliin (TM), according to the researchers.

However, transient expression analysis of the patient’s mutation using COS-1 cells demonstrated markedly reduced expression of TM-Cys265Ser on the plasma membrane relative to wild-type TM. The TM-Cys265Ser mutant was intracellularly degraded, probably due to EGF-like domain 1 misfolding, according to the researchers and the reduced expression of TM on the endothelial cell membrane may be responsible for the disseminated intravascular coagulation-like symptoms observed in the patient, the speculated.

“The clinical symptoms of the patient in this study were characterized by recurrent hemorrhage, indicating that TM-C265S mainly causes hyperfibrinolysis rather than hypercoagulation. The C265S mutation may disrupt the timely and delicate balance between coagulation and fibrinolysis,” the researchers suggested.

The authors reported that they had no conflicts of interest.

 

Clinical symptoms in a 19-year-old Vietnamese woman who experienced several life-threatening bleeding events, including ovarian hemorrhage, led to the discovery of a novel gene variant causing her bleeding disorder.

Blood analysis of the patients showed decreased fibrinogen level with “markedly elevated fibrinogen/fibrin degradation products and D-dimer levels.” Attempts to treat the patient with hemostatic surgery, administration of several medications, including nafamostat mesylate, tranexamic acid, and unfractionated heparin, produced no correction of her coagulation abnormalities, and the patient experienced repeated hemorrhagic events, according to researchers from the Tokyo Saiseikai Central Hospital, Japan, and colleagues.

However, the researchers found that treatment with recombinant human thrombomodulin (rhTM) remarkably improved the patient’s pathophysiology, according to the results of a case study reported in Blood Advances.
 

Genetic analysis

Upon screening and sequencing of the patient’s thrombomodulin gene, a previously unreported homozygous variation, c.793T>A (p.Cys265Ser) was discovered. Under normal circumstances, the Cys265 residue forms one of three disulfide bonds in the epidermal growth factor (EGF)-like domain 1 of thrombomoduliin (TM), according to the researchers.

However, transient expression analysis of the patient’s mutation using COS-1 cells demonstrated markedly reduced expression of TM-Cys265Ser on the plasma membrane relative to wild-type TM. The TM-Cys265Ser mutant was intracellularly degraded, probably due to EGF-like domain 1 misfolding, according to the researchers and the reduced expression of TM on the endothelial cell membrane may be responsible for the disseminated intravascular coagulation-like symptoms observed in the patient, the speculated.

“The clinical symptoms of the patient in this study were characterized by recurrent hemorrhage, indicating that TM-C265S mainly causes hyperfibrinolysis rather than hypercoagulation. The C265S mutation may disrupt the timely and delicate balance between coagulation and fibrinolysis,” the researchers suggested.

The authors reported that they had no conflicts of interest.

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Autoeczematization: A Strange Id Reaction of the Skin

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Autoeczematization (AE), or id reaction, is a disseminated eczematous reaction that occurs days or weeks after exposure to a primary stimulus, resulting from a release of antigen(s). Whitfield1 first described AE in 1921, when he postulated that the id reaction was due to sensitization of the skin after a primary stimulus. He called it “a form of auto-intoxication derived from changes in the patient’s own tissues.”1 The exact prevalence of id reactions is unknown; one study showed that 17% of patients with dermatophyte infections developed an id reaction, typically tinea pedis linked with vesicles on the palms.2 Tinea capitis is one of the most common causes of AE in children, which is frequently misdiagnosed as a drug reaction. Approximately 37% of patients diagnosed with stasis dermatitis develop an id reaction (Figure 1). A history of contact dermatitis is common in patients presenting with AE.2-6

Figure 1. A and B, Stasis dermatitis with marked peripheral edema.

Pathophysiology of Id Reactions

An abnormal immune response against autologous skin antigens may be responsible for the development of AE. Shelley5 postulated that hair follicles play an important role in id reactions, as Sharquie et al6 recently emphasized for many skin disorders. The pathogenesis of AE is uncertain, but circulating T lymphocytes play a role in this reaction. Normally, T cells are activated by a release of antigens after a primary exposure to a stimulus. However, overactivation of these T cells induces autoimmune reactions such as AE.7 Activated T lymphocytes express HLA-DR and IL-2 receptor, markers elevated in the peripheral blood of patients undergoing id reactions. After treatment, the levels of activated T lymphocytes decline. An increase in the number of CD25+ T cells and a decrease in the number of suppressor T cells in the blood may occur during an id reaction.7-9 Keratinocytes produce proinflammatory cytokines, such as thymic stromal erythropoietin, IL-25, and IL-33, that activate T cells.10-12 Therefore, the most likely pathogenesis of an id reaction is that T lymphocytes are activated at the primary reaction site due to proinflammatory cytokines released by keratinocytes. These activated T cells then travel systemically via hematogenous dissemination. The spread of activated T lymphocytes produces an eczematous reaction at secondary locations distant to the primary site.9

Clinical and Histopathological Features of Id Reactions

Clinically, AE is first evident as a vesicular dissemination that groups to form papules or nummular patches and usually is present on the legs, feet, arms, and/or trunk (Figure 2). The primary dermatitis is localized to the area that was the site of contact to the offending stimuli. This localized eczematous eruption begins with an acute or subacute onset. It has the appearance of small crusted vesicles with erythema (Figure 1). The first sign of AE is vesicles presenting near the primary site on flexural surfaces or on the hands and feet. A classic example is tinea pedis linked with vesicles on the palms and sides of the fingers, resembling dyshidrotic eczema. Sites of prior cutaneous trauma, such as dermatoses, scars, and burns, are common locations for early AE. In later stages, vesicles disseminate to the legs, arms, and trunk, where they group to form papules and nummular patches in a symmetrical pattern.5,13-15 These lesions may be extremely pruritic. The pruritus may be so intense that it interrupts daily activities and disrupts the ability to fall or stay asleep.16

Figure 2. A, Id reaction on the leg and thigh. B, Id reaction on the antecubital fossa. C, Id reaction on the dorsal hand.

 

Histologically, biopsy specimens show psoriasiform spongiotic dermatitis with mononuclear cells contained in the vesicles. Interstitial edema and perivascular lymphohistiocytic infiltrates are evident. Eosinophils also may be present. This pattern is not unique toid reactions.17-19 Although AE is a reaction pattern that may be due to a fungal or bacterial infection, the etiologic agent is not evident microscopically within the eczema itself.

Etiology of Id Reactions

Id reactions most commonly occur from either stasis dermatitis or tinea pedis, although a wide variety of other causes should be considered. Evaluation of the primary site rather than the id reaction may identify an infectious or parasitic agent. Sometimes the AE reaction is specifically named: dermatophytid with dermatophytosis, bacterid with a bacterial infectious process, and tuberculid with tuberculosis. Similarly, there may be reactions to underlying candidiasis, sporotrichosis, histoplasmosis, and other fungal infections that can cause a cutaneous id reaction.18,20-22Mycobacterium species, Pseudomonas, Staphylococcus, and Streptococcus are bacterial causes of AE.15,23-26 Viral infections that can cause an id reaction are herpes simplex virus and molluscum contagiosum.27-29 Scabies, leishmaniasis, and pediculosis capitis are parasitic infections that may be etiologic.14,30,31 In addition, noninfectious stimuli besides stasis dermatitis that can produce id reactions include medications, topical creams, tattoo ink, sutures, radiotherapy, and dyshidrotic eczema. The primary reaction to these agents is a localized dermatitis followed by the immunological response that induces a secondary reaction distant from the primary site.17,18,32-38

Differential Diagnoses

Differential diagnoses include other types of eczema and some vesicular eruptions. Irritant contact dermatitis is another dermatosis that presents as a widespread vesicular eruption due to repetitive exposure to toxic irritants. The rash is erythematous with pustules, blisters, and crusts. It is only found in areas directly exposed to irritants, as opposed to AE, which spreads to areas distant to the primary reaction site. Irritant contact dermatitis presents with more of a burning sensation, whereas AE is more pruritic.39,40 Allergic contact dermatitis presents with erythematous vesicles and papules and sometimes with bullae. There is edema and crust formation, which often can spread past the point of contact in later stages. Similar to AE, there is intense pruritus. However, allergic contact dermatitis most commonly is caused by exposure to metals, cosmetics, and fragrances, whereas infectious agents and stasis dermatitis are the most common causes of AE.40,41 It may be challenging to distinguish AE from other causes of widespread eczematous dissemination. Vesicular eruptions sometimes require distinction from AE, including herpetic infections, insect bite reactions, and drug eruptions.18,42

Treatment

The underlying condition should be treated to mitigate the inflammatory response causing the id reaction. If not skillfully orchestrated, the id reaction can reoccur. For infectious causes of AE, an antifungal, antibacterial, antiviral, or antiparasitic should be given. If stasis dermatitis is responsible for the id reaction, compression stockings and leg elevation are indicated. The id reaction itself is treated with systemic or topical corticosteroids and wet compresses if acute. The goal of these treatments is to reduce patient discomfort caused by the inflammation and pruritus.18,43

Conclusion

Id reactions are an unusual phenomenon that commonly occurs after fungal skin infections and stasis dermatitis. T lymphocytes and keratinocytes may play a key role in this reaction, with newer research further delineating the process and possibly providing enhanced treatment options. Therapy focuses on treating the underlying condition, supplemented with corticosteroids for the autoeczema.

References
  1. Whitfield A. Lumleian Lectures on Some Points in the Aetiology of Skin Diseases. Delivered before the Royal College of Physicians of London on March 10th, 15th, and 17th, 1921. Lecture II. Lancet. 1921;2:122-127.
  2. Cheng N, Rucker Wright D, Cohen BA. Dermatophytid in tinea capitis: rarely reported common phenomenon with clinical implications. Pediatrics. 2011;128:E453-E457.
  3. Schrom KP, Kobs A, Nedorost S. Clinical psoriasiform dermatitis following dupilumab use for autoeczematization secondary to chronic stasis dermatitis. Cureus. 2020;12:e7831. doi:10.7759/cureus.7831
  4. Templeton HJ, Lunsford CJ, Allington HV. Autosensitization dermatitis; report of five cases and protocol of an experiment. Arch Derm Syphilol. 1949;59:68-77.
  5. Shelley WB. Id reaction. In: Consultations in Dermatology. Saunders; 1972:262-267.
  6. Sharquie KE, Noaimi AA, Flayih RA. Clinical and histopathological findings in patients with follicular dermatoses: all skin diseases starts in the hair follicles as new hypothesis. Am J Clin Res Rev. 2020;4:17.
  7. Kasteler JS, Petersen MJ, Vance JE, et al. Circulating activated T lymphocytes in autoeczematization. Arch Dermatol. 1992;128:795-798.
  8. González-Amaro R, Baranda L, Abud-Mendoza C, et al. Autoeczematization is associated with abnormal immune recognition of autologous skin antigens. J Am Acad Dermatol. 1993;28:56-60. 
  9. Cunningham MJ, Zone JJ, Petersen MJ, et al. Circulating activated (DR-positive) T lymphocytes in a patient with autoeczematization. J Am Acad Dermatol. 1986;14:1039-1041. 
  10. Furue M, Ulzii D, Vu YH, et al. Pathogenesis of atopic dermatitis: current paradigm. Iran J Immunol. 2019;16:97-107.
  11. Uchi H, Terao H, Koga T, et al. Cytokines and chemokines in the epidermis. J Dermatol Sci. 2000;24(suppl 1):S29-S38.
  12. Bos JD, Kapsenberg ML. The skin immune system: progress in cutaneous biology. Immunol Today. 1993;14:75-78.
  13. Young AW Jr. Dynamics of autosensitization dermatitis; a clinical and microscopic concept of autoeczematization. AMA Arch Derm. 1958;77:495-502.
  14. Brenner S, Wolf R, Landau M. Scabid: an unusual id reaction to scabies. Int J Dermatol. 1993;32:128-129.
  15. Yamany T, Schwartz RA. Infectious eczematoid dermatitis: a comprehensive review. J Eur Acad Dermatol Venereol. 2015;29:203-208.
  16. Wang X, Li L, Shi X, et al. Itching and its related factors in subtypes of eczema: a cross-sectional multicenter study in tertiary hospitals of China. Sci Rep. 2018;8:10754.
  17. Price A, Tavazoie M, Meehan SA, et al. Id reaction associated with red tattoo ink. Cutis. 2018;102:E32-E34.
  18. Ilkit M, Durdu M, Karaks¸ M. Cutaneous id reactions: a comprehensive review of clinical manifestations, epidemiology, etiology, and management. Crit Rev Microbiol. 2012;38:191-202.
  19. Kaner SR. Dermatitis venenata of the feet with a generalized “id” reaction. J Am Podiatry Assoc. 1970;60:199-204.
  20. Jordan L, Jackson NA, Carter-Snell B, et al. Pustular tinea id reaction. Cutis. 2019;103:E3-E4.
  21. Crum N, Hardaway C, Graham B. Development of an idlike reaction during treatment for acute pulmonary histoplasmosis: a new cutaneous manifestation in histoplasmosis. J Am Acad Dermatol. 2003;48(2 suppl):S5-S6.
  22. Chirac A, Brzezinski P, Chiriac AE, et al. Autosensitisation (autoeczematisation) reactions in a case of diaper dermatitis candidiasis. Niger Med J. 2014;55:274-275.
  23. Singh PY, Sinha P, Baveja S, et al. Immune-mediated tuberculous uveitis—a rare association with papulonecrotic tuberculid. Indian J Ophthalmol. 2019;67:1207-1209.
  24. Urso B, Georgesen C, Harp J. Papulonecrotic tuberculid secondary to Mycobacterium avium complex. Cutis. 2019;104:E11-E13.
  25. Choudhri SH, Magro CM, Crowson AN, et al. An id reaction to Mycobacterium leprae: first documented case. Cutis. 1994;54:282-286.
  26. Park JW, Jeong GJ, Seo SJ, et al. Pseudomonas toe web infection and autosensitisation dermatitis: diagnostic and therapeutic challenge. Int Wound J. 2020;17:1543-1544. doi:10.1111/iwj.13386
  27. Netchiporouk E, Cohen BA. Recognizing and managing eczematous id reactions to molluscum contagiosum virus in children. Pediatrics. 2012;129:E1072-E1075.
  28. Aurelian L, Ono F, Burnett J. Herpes simplex virus (HSV)-associated erythema multiforme (HAEM): a viral disease with an autoimmune component. Dermatol Online J. 2003;9:1.
  29. Rocamora V, Romaní J, Puig L, et al. Id reaction to molluscum contagiosum. Pediatr Dermatol. 1996;13:349-350.
  30. Yes¸ilova Y, Özbilgin A, Turan E, et al. Clinical exacerbation developing during treatment of cutaneous leishmaniasis: an id reaction? Turkiye Parazitol Derg. 2014;38:281-282.
  31. Connor CJ, Selby JC, Wanat KA. Severe pediculosis capitus: a case of “crusted lice” with autoeczematization. Dermatol Online J. 2016;22:13030/qt7c91z913.
  32. Shelley WB. The autoimmune mechanism in clinical dermatology. Arch Dermatol. 1962;86:27-34.
  33. Bosworth A, Hull PR. Disseminated eczema following radiotherapy: a case report. J Cutan Med Surg. 2018;22:353-355.
  34. Lowther C, Miedler JD, Cockerell CJ. Id-like reaction to BCG therapy for bladder cancer. Cutis. 2013;91:145-151.
  35. Huerth KA, Glick PL, Glick ZR. Cutaneous id reaction after using cyanoacrylate for wound closure. Cutis. 2020;105:E11-E13.
  36. Amini S, Burdick AE, Janniger CK. Dyshidrotic eczema (pompholyx). Updated April 22, 2020. Accessed August 23, 2021. https://emedicine.medscape.com/article/1122527-overview
  37. Sundaresan S, Migden MR, Silapunt S. Stasis dermatitis: pathophysiology, evaluation, and management. Am J Clin Dermatol. 2017;18:383-390.
  38. Hughes JDM, Pratt MD. Allergic contact dermatitis and autoeczematization to proctosedyl® cream and proctomyxin® cream. Case Rep Dermatol. 2018;10:238-246. 
  39. Bains SN, Nash P, Fonacier L. Irritant contact dermatitis. Clin Rev Allergy Immunol. 2019;56:99-109. 
  40. Novak-Bilic´ G, Vucˇic´ M, Japundžic´ I, et al. Irritant and allergic contact dermatitis—skin lesion characteristics. Acta Clin Croat. 2018;57:713-720.
  41. Nassau S, Fonacier L. Allergic contact dermatitis. Med Clin North Am. 2020;104:61-76.
  42. Lewis DJ, Schlichte MJ, Dao H Jr. Atypical disseminated herpes zoster: management guidelines in immunocompromised patients. Cutis. 2017;100:321-330.
  43. Nedorost S, White S, Rowland DY, et al. Development and implementation of an order set to improve value of care for patients with severe stasis dermatitis. J Am Acad Dermatol. 2019;80:815-817.
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Correspondence: Robert A. Schwartz, MD, MPH, Professor & Head, Dermatology, Rutgers New Jersey Medical School, 185 South Orange Ave, Newark, NJ 07103-2714 (roschwar@cal.berkeley.edu).

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Autoeczematization (AE), or id reaction, is a disseminated eczematous reaction that occurs days or weeks after exposure to a primary stimulus, resulting from a release of antigen(s). Whitfield1 first described AE in 1921, when he postulated that the id reaction was due to sensitization of the skin after a primary stimulus. He called it “a form of auto-intoxication derived from changes in the patient’s own tissues.”1 The exact prevalence of id reactions is unknown; one study showed that 17% of patients with dermatophyte infections developed an id reaction, typically tinea pedis linked with vesicles on the palms.2 Tinea capitis is one of the most common causes of AE in children, which is frequently misdiagnosed as a drug reaction. Approximately 37% of patients diagnosed with stasis dermatitis develop an id reaction (Figure 1). A history of contact dermatitis is common in patients presenting with AE.2-6

Figure 1. A and B, Stasis dermatitis with marked peripheral edema.

Pathophysiology of Id Reactions

An abnormal immune response against autologous skin antigens may be responsible for the development of AE. Shelley5 postulated that hair follicles play an important role in id reactions, as Sharquie et al6 recently emphasized for many skin disorders. The pathogenesis of AE is uncertain, but circulating T lymphocytes play a role in this reaction. Normally, T cells are activated by a release of antigens after a primary exposure to a stimulus. However, overactivation of these T cells induces autoimmune reactions such as AE.7 Activated T lymphocytes express HLA-DR and IL-2 receptor, markers elevated in the peripheral blood of patients undergoing id reactions. After treatment, the levels of activated T lymphocytes decline. An increase in the number of CD25+ T cells and a decrease in the number of suppressor T cells in the blood may occur during an id reaction.7-9 Keratinocytes produce proinflammatory cytokines, such as thymic stromal erythropoietin, IL-25, and IL-33, that activate T cells.10-12 Therefore, the most likely pathogenesis of an id reaction is that T lymphocytes are activated at the primary reaction site due to proinflammatory cytokines released by keratinocytes. These activated T cells then travel systemically via hematogenous dissemination. The spread of activated T lymphocytes produces an eczematous reaction at secondary locations distant to the primary site.9

Clinical and Histopathological Features of Id Reactions

Clinically, AE is first evident as a vesicular dissemination that groups to form papules or nummular patches and usually is present on the legs, feet, arms, and/or trunk (Figure 2). The primary dermatitis is localized to the area that was the site of contact to the offending stimuli. This localized eczematous eruption begins with an acute or subacute onset. It has the appearance of small crusted vesicles with erythema (Figure 1). The first sign of AE is vesicles presenting near the primary site on flexural surfaces or on the hands and feet. A classic example is tinea pedis linked with vesicles on the palms and sides of the fingers, resembling dyshidrotic eczema. Sites of prior cutaneous trauma, such as dermatoses, scars, and burns, are common locations for early AE. In later stages, vesicles disseminate to the legs, arms, and trunk, where they group to form papules and nummular patches in a symmetrical pattern.5,13-15 These lesions may be extremely pruritic. The pruritus may be so intense that it interrupts daily activities and disrupts the ability to fall or stay asleep.16

Figure 2. A, Id reaction on the leg and thigh. B, Id reaction on the antecubital fossa. C, Id reaction on the dorsal hand.

 

Histologically, biopsy specimens show psoriasiform spongiotic dermatitis with mononuclear cells contained in the vesicles. Interstitial edema and perivascular lymphohistiocytic infiltrates are evident. Eosinophils also may be present. This pattern is not unique toid reactions.17-19 Although AE is a reaction pattern that may be due to a fungal or bacterial infection, the etiologic agent is not evident microscopically within the eczema itself.

Etiology of Id Reactions

Id reactions most commonly occur from either stasis dermatitis or tinea pedis, although a wide variety of other causes should be considered. Evaluation of the primary site rather than the id reaction may identify an infectious or parasitic agent. Sometimes the AE reaction is specifically named: dermatophytid with dermatophytosis, bacterid with a bacterial infectious process, and tuberculid with tuberculosis. Similarly, there may be reactions to underlying candidiasis, sporotrichosis, histoplasmosis, and other fungal infections that can cause a cutaneous id reaction.18,20-22Mycobacterium species, Pseudomonas, Staphylococcus, and Streptococcus are bacterial causes of AE.15,23-26 Viral infections that can cause an id reaction are herpes simplex virus and molluscum contagiosum.27-29 Scabies, leishmaniasis, and pediculosis capitis are parasitic infections that may be etiologic.14,30,31 In addition, noninfectious stimuli besides stasis dermatitis that can produce id reactions include medications, topical creams, tattoo ink, sutures, radiotherapy, and dyshidrotic eczema. The primary reaction to these agents is a localized dermatitis followed by the immunological response that induces a secondary reaction distant from the primary site.17,18,32-38

Differential Diagnoses

Differential diagnoses include other types of eczema and some vesicular eruptions. Irritant contact dermatitis is another dermatosis that presents as a widespread vesicular eruption due to repetitive exposure to toxic irritants. The rash is erythematous with pustules, blisters, and crusts. It is only found in areas directly exposed to irritants, as opposed to AE, which spreads to areas distant to the primary reaction site. Irritant contact dermatitis presents with more of a burning sensation, whereas AE is more pruritic.39,40 Allergic contact dermatitis presents with erythematous vesicles and papules and sometimes with bullae. There is edema and crust formation, which often can spread past the point of contact in later stages. Similar to AE, there is intense pruritus. However, allergic contact dermatitis most commonly is caused by exposure to metals, cosmetics, and fragrances, whereas infectious agents and stasis dermatitis are the most common causes of AE.40,41 It may be challenging to distinguish AE from other causes of widespread eczematous dissemination. Vesicular eruptions sometimes require distinction from AE, including herpetic infections, insect bite reactions, and drug eruptions.18,42

Treatment

The underlying condition should be treated to mitigate the inflammatory response causing the id reaction. If not skillfully orchestrated, the id reaction can reoccur. For infectious causes of AE, an antifungal, antibacterial, antiviral, or antiparasitic should be given. If stasis dermatitis is responsible for the id reaction, compression stockings and leg elevation are indicated. The id reaction itself is treated with systemic or topical corticosteroids and wet compresses if acute. The goal of these treatments is to reduce patient discomfort caused by the inflammation and pruritus.18,43

Conclusion

Id reactions are an unusual phenomenon that commonly occurs after fungal skin infections and stasis dermatitis. T lymphocytes and keratinocytes may play a key role in this reaction, with newer research further delineating the process and possibly providing enhanced treatment options. Therapy focuses on treating the underlying condition, supplemented with corticosteroids for the autoeczema.

Autoeczematization (AE), or id reaction, is a disseminated eczematous reaction that occurs days or weeks after exposure to a primary stimulus, resulting from a release of antigen(s). Whitfield1 first described AE in 1921, when he postulated that the id reaction was due to sensitization of the skin after a primary stimulus. He called it “a form of auto-intoxication derived from changes in the patient’s own tissues.”1 The exact prevalence of id reactions is unknown; one study showed that 17% of patients with dermatophyte infections developed an id reaction, typically tinea pedis linked with vesicles on the palms.2 Tinea capitis is one of the most common causes of AE in children, which is frequently misdiagnosed as a drug reaction. Approximately 37% of patients diagnosed with stasis dermatitis develop an id reaction (Figure 1). A history of contact dermatitis is common in patients presenting with AE.2-6

Figure 1. A and B, Stasis dermatitis with marked peripheral edema.

Pathophysiology of Id Reactions

An abnormal immune response against autologous skin antigens may be responsible for the development of AE. Shelley5 postulated that hair follicles play an important role in id reactions, as Sharquie et al6 recently emphasized for many skin disorders. The pathogenesis of AE is uncertain, but circulating T lymphocytes play a role in this reaction. Normally, T cells are activated by a release of antigens after a primary exposure to a stimulus. However, overactivation of these T cells induces autoimmune reactions such as AE.7 Activated T lymphocytes express HLA-DR and IL-2 receptor, markers elevated in the peripheral blood of patients undergoing id reactions. After treatment, the levels of activated T lymphocytes decline. An increase in the number of CD25+ T cells and a decrease in the number of suppressor T cells in the blood may occur during an id reaction.7-9 Keratinocytes produce proinflammatory cytokines, such as thymic stromal erythropoietin, IL-25, and IL-33, that activate T cells.10-12 Therefore, the most likely pathogenesis of an id reaction is that T lymphocytes are activated at the primary reaction site due to proinflammatory cytokines released by keratinocytes. These activated T cells then travel systemically via hematogenous dissemination. The spread of activated T lymphocytes produces an eczematous reaction at secondary locations distant to the primary site.9

Clinical and Histopathological Features of Id Reactions

Clinically, AE is first evident as a vesicular dissemination that groups to form papules or nummular patches and usually is present on the legs, feet, arms, and/or trunk (Figure 2). The primary dermatitis is localized to the area that was the site of contact to the offending stimuli. This localized eczematous eruption begins with an acute or subacute onset. It has the appearance of small crusted vesicles with erythema (Figure 1). The first sign of AE is vesicles presenting near the primary site on flexural surfaces or on the hands and feet. A classic example is tinea pedis linked with vesicles on the palms and sides of the fingers, resembling dyshidrotic eczema. Sites of prior cutaneous trauma, such as dermatoses, scars, and burns, are common locations for early AE. In later stages, vesicles disseminate to the legs, arms, and trunk, where they group to form papules and nummular patches in a symmetrical pattern.5,13-15 These lesions may be extremely pruritic. The pruritus may be so intense that it interrupts daily activities and disrupts the ability to fall or stay asleep.16

Figure 2. A, Id reaction on the leg and thigh. B, Id reaction on the antecubital fossa. C, Id reaction on the dorsal hand.

 

Histologically, biopsy specimens show psoriasiform spongiotic dermatitis with mononuclear cells contained in the vesicles. Interstitial edema and perivascular lymphohistiocytic infiltrates are evident. Eosinophils also may be present. This pattern is not unique toid reactions.17-19 Although AE is a reaction pattern that may be due to a fungal or bacterial infection, the etiologic agent is not evident microscopically within the eczema itself.

Etiology of Id Reactions

Id reactions most commonly occur from either stasis dermatitis or tinea pedis, although a wide variety of other causes should be considered. Evaluation of the primary site rather than the id reaction may identify an infectious or parasitic agent. Sometimes the AE reaction is specifically named: dermatophytid with dermatophytosis, bacterid with a bacterial infectious process, and tuberculid with tuberculosis. Similarly, there may be reactions to underlying candidiasis, sporotrichosis, histoplasmosis, and other fungal infections that can cause a cutaneous id reaction.18,20-22Mycobacterium species, Pseudomonas, Staphylococcus, and Streptococcus are bacterial causes of AE.15,23-26 Viral infections that can cause an id reaction are herpes simplex virus and molluscum contagiosum.27-29 Scabies, leishmaniasis, and pediculosis capitis are parasitic infections that may be etiologic.14,30,31 In addition, noninfectious stimuli besides stasis dermatitis that can produce id reactions include medications, topical creams, tattoo ink, sutures, radiotherapy, and dyshidrotic eczema. The primary reaction to these agents is a localized dermatitis followed by the immunological response that induces a secondary reaction distant from the primary site.17,18,32-38

Differential Diagnoses

Differential diagnoses include other types of eczema and some vesicular eruptions. Irritant contact dermatitis is another dermatosis that presents as a widespread vesicular eruption due to repetitive exposure to toxic irritants. The rash is erythematous with pustules, blisters, and crusts. It is only found in areas directly exposed to irritants, as opposed to AE, which spreads to areas distant to the primary reaction site. Irritant contact dermatitis presents with more of a burning sensation, whereas AE is more pruritic.39,40 Allergic contact dermatitis presents with erythematous vesicles and papules and sometimes with bullae. There is edema and crust formation, which often can spread past the point of contact in later stages. Similar to AE, there is intense pruritus. However, allergic contact dermatitis most commonly is caused by exposure to metals, cosmetics, and fragrances, whereas infectious agents and stasis dermatitis are the most common causes of AE.40,41 It may be challenging to distinguish AE from other causes of widespread eczematous dissemination. Vesicular eruptions sometimes require distinction from AE, including herpetic infections, insect bite reactions, and drug eruptions.18,42

Treatment

The underlying condition should be treated to mitigate the inflammatory response causing the id reaction. If not skillfully orchestrated, the id reaction can reoccur. For infectious causes of AE, an antifungal, antibacterial, antiviral, or antiparasitic should be given. If stasis dermatitis is responsible for the id reaction, compression stockings and leg elevation are indicated. The id reaction itself is treated with systemic or topical corticosteroids and wet compresses if acute. The goal of these treatments is to reduce patient discomfort caused by the inflammation and pruritus.18,43

Conclusion

Id reactions are an unusual phenomenon that commonly occurs after fungal skin infections and stasis dermatitis. T lymphocytes and keratinocytes may play a key role in this reaction, with newer research further delineating the process and possibly providing enhanced treatment options. Therapy focuses on treating the underlying condition, supplemented with corticosteroids for the autoeczema.

References
  1. Whitfield A. Lumleian Lectures on Some Points in the Aetiology of Skin Diseases. Delivered before the Royal College of Physicians of London on March 10th, 15th, and 17th, 1921. Lecture II. Lancet. 1921;2:122-127.
  2. Cheng N, Rucker Wright D, Cohen BA. Dermatophytid in tinea capitis: rarely reported common phenomenon with clinical implications. Pediatrics. 2011;128:E453-E457.
  3. Schrom KP, Kobs A, Nedorost S. Clinical psoriasiform dermatitis following dupilumab use for autoeczematization secondary to chronic stasis dermatitis. Cureus. 2020;12:e7831. doi:10.7759/cureus.7831
  4. Templeton HJ, Lunsford CJ, Allington HV. Autosensitization dermatitis; report of five cases and protocol of an experiment. Arch Derm Syphilol. 1949;59:68-77.
  5. Shelley WB. Id reaction. In: Consultations in Dermatology. Saunders; 1972:262-267.
  6. Sharquie KE, Noaimi AA, Flayih RA. Clinical and histopathological findings in patients with follicular dermatoses: all skin diseases starts in the hair follicles as new hypothesis. Am J Clin Res Rev. 2020;4:17.
  7. Kasteler JS, Petersen MJ, Vance JE, et al. Circulating activated T lymphocytes in autoeczematization. Arch Dermatol. 1992;128:795-798.
  8. González-Amaro R, Baranda L, Abud-Mendoza C, et al. Autoeczematization is associated with abnormal immune recognition of autologous skin antigens. J Am Acad Dermatol. 1993;28:56-60. 
  9. Cunningham MJ, Zone JJ, Petersen MJ, et al. Circulating activated (DR-positive) T lymphocytes in a patient with autoeczematization. J Am Acad Dermatol. 1986;14:1039-1041. 
  10. Furue M, Ulzii D, Vu YH, et al. Pathogenesis of atopic dermatitis: current paradigm. Iran J Immunol. 2019;16:97-107.
  11. Uchi H, Terao H, Koga T, et al. Cytokines and chemokines in the epidermis. J Dermatol Sci. 2000;24(suppl 1):S29-S38.
  12. Bos JD, Kapsenberg ML. The skin immune system: progress in cutaneous biology. Immunol Today. 1993;14:75-78.
  13. Young AW Jr. Dynamics of autosensitization dermatitis; a clinical and microscopic concept of autoeczematization. AMA Arch Derm. 1958;77:495-502.
  14. Brenner S, Wolf R, Landau M. Scabid: an unusual id reaction to scabies. Int J Dermatol. 1993;32:128-129.
  15. Yamany T, Schwartz RA. Infectious eczematoid dermatitis: a comprehensive review. J Eur Acad Dermatol Venereol. 2015;29:203-208.
  16. Wang X, Li L, Shi X, et al. Itching and its related factors in subtypes of eczema: a cross-sectional multicenter study in tertiary hospitals of China. Sci Rep. 2018;8:10754.
  17. Price A, Tavazoie M, Meehan SA, et al. Id reaction associated with red tattoo ink. Cutis. 2018;102:E32-E34.
  18. Ilkit M, Durdu M, Karaks¸ M. Cutaneous id reactions: a comprehensive review of clinical manifestations, epidemiology, etiology, and management. Crit Rev Microbiol. 2012;38:191-202.
  19. Kaner SR. Dermatitis venenata of the feet with a generalized “id” reaction. J Am Podiatry Assoc. 1970;60:199-204.
  20. Jordan L, Jackson NA, Carter-Snell B, et al. Pustular tinea id reaction. Cutis. 2019;103:E3-E4.
  21. Crum N, Hardaway C, Graham B. Development of an idlike reaction during treatment for acute pulmonary histoplasmosis: a new cutaneous manifestation in histoplasmosis. J Am Acad Dermatol. 2003;48(2 suppl):S5-S6.
  22. Chirac A, Brzezinski P, Chiriac AE, et al. Autosensitisation (autoeczematisation) reactions in a case of diaper dermatitis candidiasis. Niger Med J. 2014;55:274-275.
  23. Singh PY, Sinha P, Baveja S, et al. Immune-mediated tuberculous uveitis—a rare association with papulonecrotic tuberculid. Indian J Ophthalmol. 2019;67:1207-1209.
  24. Urso B, Georgesen C, Harp J. Papulonecrotic tuberculid secondary to Mycobacterium avium complex. Cutis. 2019;104:E11-E13.
  25. Choudhri SH, Magro CM, Crowson AN, et al. An id reaction to Mycobacterium leprae: first documented case. Cutis. 1994;54:282-286.
  26. Park JW, Jeong GJ, Seo SJ, et al. Pseudomonas toe web infection and autosensitisation dermatitis: diagnostic and therapeutic challenge. Int Wound J. 2020;17:1543-1544. doi:10.1111/iwj.13386
  27. Netchiporouk E, Cohen BA. Recognizing and managing eczematous id reactions to molluscum contagiosum virus in children. Pediatrics. 2012;129:E1072-E1075.
  28. Aurelian L, Ono F, Burnett J. Herpes simplex virus (HSV)-associated erythema multiforme (HAEM): a viral disease with an autoimmune component. Dermatol Online J. 2003;9:1.
  29. Rocamora V, Romaní J, Puig L, et al. Id reaction to molluscum contagiosum. Pediatr Dermatol. 1996;13:349-350.
  30. Yes¸ilova Y, Özbilgin A, Turan E, et al. Clinical exacerbation developing during treatment of cutaneous leishmaniasis: an id reaction? Turkiye Parazitol Derg. 2014;38:281-282.
  31. Connor CJ, Selby JC, Wanat KA. Severe pediculosis capitus: a case of “crusted lice” with autoeczematization. Dermatol Online J. 2016;22:13030/qt7c91z913.
  32. Shelley WB. The autoimmune mechanism in clinical dermatology. Arch Dermatol. 1962;86:27-34.
  33. Bosworth A, Hull PR. Disseminated eczema following radiotherapy: a case report. J Cutan Med Surg. 2018;22:353-355.
  34. Lowther C, Miedler JD, Cockerell CJ. Id-like reaction to BCG therapy for bladder cancer. Cutis. 2013;91:145-151.
  35. Huerth KA, Glick PL, Glick ZR. Cutaneous id reaction after using cyanoacrylate for wound closure. Cutis. 2020;105:E11-E13.
  36. Amini S, Burdick AE, Janniger CK. Dyshidrotic eczema (pompholyx). Updated April 22, 2020. Accessed August 23, 2021. https://emedicine.medscape.com/article/1122527-overview
  37. Sundaresan S, Migden MR, Silapunt S. Stasis dermatitis: pathophysiology, evaluation, and management. Am J Clin Dermatol. 2017;18:383-390.
  38. Hughes JDM, Pratt MD. Allergic contact dermatitis and autoeczematization to proctosedyl® cream and proctomyxin® cream. Case Rep Dermatol. 2018;10:238-246. 
  39. Bains SN, Nash P, Fonacier L. Irritant contact dermatitis. Clin Rev Allergy Immunol. 2019;56:99-109. 
  40. Novak-Bilic´ G, Vucˇic´ M, Japundžic´ I, et al. Irritant and allergic contact dermatitis—skin lesion characteristics. Acta Clin Croat. 2018;57:713-720.
  41. Nassau S, Fonacier L. Allergic contact dermatitis. Med Clin North Am. 2020;104:61-76.
  42. Lewis DJ, Schlichte MJ, Dao H Jr. Atypical disseminated herpes zoster: management guidelines in immunocompromised patients. Cutis. 2017;100:321-330.
  43. Nedorost S, White S, Rowland DY, et al. Development and implementation of an order set to improve value of care for patients with severe stasis dermatitis. J Am Acad Dermatol. 2019;80:815-817.
References
  1. Whitfield A. Lumleian Lectures on Some Points in the Aetiology of Skin Diseases. Delivered before the Royal College of Physicians of London on March 10th, 15th, and 17th, 1921. Lecture II. Lancet. 1921;2:122-127.
  2. Cheng N, Rucker Wright D, Cohen BA. Dermatophytid in tinea capitis: rarely reported common phenomenon with clinical implications. Pediatrics. 2011;128:E453-E457.
  3. Schrom KP, Kobs A, Nedorost S. Clinical psoriasiform dermatitis following dupilumab use for autoeczematization secondary to chronic stasis dermatitis. Cureus. 2020;12:e7831. doi:10.7759/cureus.7831
  4. Templeton HJ, Lunsford CJ, Allington HV. Autosensitization dermatitis; report of five cases and protocol of an experiment. Arch Derm Syphilol. 1949;59:68-77.
  5. Shelley WB. Id reaction. In: Consultations in Dermatology. Saunders; 1972:262-267.
  6. Sharquie KE, Noaimi AA, Flayih RA. Clinical and histopathological findings in patients with follicular dermatoses: all skin diseases starts in the hair follicles as new hypothesis. Am J Clin Res Rev. 2020;4:17.
  7. Kasteler JS, Petersen MJ, Vance JE, et al. Circulating activated T lymphocytes in autoeczematization. Arch Dermatol. 1992;128:795-798.
  8. González-Amaro R, Baranda L, Abud-Mendoza C, et al. Autoeczematization is associated with abnormal immune recognition of autologous skin antigens. J Am Acad Dermatol. 1993;28:56-60. 
  9. Cunningham MJ, Zone JJ, Petersen MJ, et al. Circulating activated (DR-positive) T lymphocytes in a patient with autoeczematization. J Am Acad Dermatol. 1986;14:1039-1041. 
  10. Furue M, Ulzii D, Vu YH, et al. Pathogenesis of atopic dermatitis: current paradigm. Iran J Immunol. 2019;16:97-107.
  11. Uchi H, Terao H, Koga T, et al. Cytokines and chemokines in the epidermis. J Dermatol Sci. 2000;24(suppl 1):S29-S38.
  12. Bos JD, Kapsenberg ML. The skin immune system: progress in cutaneous biology. Immunol Today. 1993;14:75-78.
  13. Young AW Jr. Dynamics of autosensitization dermatitis; a clinical and microscopic concept of autoeczematization. AMA Arch Derm. 1958;77:495-502.
  14. Brenner S, Wolf R, Landau M. Scabid: an unusual id reaction to scabies. Int J Dermatol. 1993;32:128-129.
  15. Yamany T, Schwartz RA. Infectious eczematoid dermatitis: a comprehensive review. J Eur Acad Dermatol Venereol. 2015;29:203-208.
  16. Wang X, Li L, Shi X, et al. Itching and its related factors in subtypes of eczema: a cross-sectional multicenter study in tertiary hospitals of China. Sci Rep. 2018;8:10754.
  17. Price A, Tavazoie M, Meehan SA, et al. Id reaction associated with red tattoo ink. Cutis. 2018;102:E32-E34.
  18. Ilkit M, Durdu M, Karaks¸ M. Cutaneous id reactions: a comprehensive review of clinical manifestations, epidemiology, etiology, and management. Crit Rev Microbiol. 2012;38:191-202.
  19. Kaner SR. Dermatitis venenata of the feet with a generalized “id” reaction. J Am Podiatry Assoc. 1970;60:199-204.
  20. Jordan L, Jackson NA, Carter-Snell B, et al. Pustular tinea id reaction. Cutis. 2019;103:E3-E4.
  21. Crum N, Hardaway C, Graham B. Development of an idlike reaction during treatment for acute pulmonary histoplasmosis: a new cutaneous manifestation in histoplasmosis. J Am Acad Dermatol. 2003;48(2 suppl):S5-S6.
  22. Chirac A, Brzezinski P, Chiriac AE, et al. Autosensitisation (autoeczematisation) reactions in a case of diaper dermatitis candidiasis. Niger Med J. 2014;55:274-275.
  23. Singh PY, Sinha P, Baveja S, et al. Immune-mediated tuberculous uveitis—a rare association with papulonecrotic tuberculid. Indian J Ophthalmol. 2019;67:1207-1209.
  24. Urso B, Georgesen C, Harp J. Papulonecrotic tuberculid secondary to Mycobacterium avium complex. Cutis. 2019;104:E11-E13.
  25. Choudhri SH, Magro CM, Crowson AN, et al. An id reaction to Mycobacterium leprae: first documented case. Cutis. 1994;54:282-286.
  26. Park JW, Jeong GJ, Seo SJ, et al. Pseudomonas toe web infection and autosensitisation dermatitis: diagnostic and therapeutic challenge. Int Wound J. 2020;17:1543-1544. doi:10.1111/iwj.13386
  27. Netchiporouk E, Cohen BA. Recognizing and managing eczematous id reactions to molluscum contagiosum virus in children. Pediatrics. 2012;129:E1072-E1075.
  28. Aurelian L, Ono F, Burnett J. Herpes simplex virus (HSV)-associated erythema multiforme (HAEM): a viral disease with an autoimmune component. Dermatol Online J. 2003;9:1.
  29. Rocamora V, Romaní J, Puig L, et al. Id reaction to molluscum contagiosum. Pediatr Dermatol. 1996;13:349-350.
  30. Yes¸ilova Y, Özbilgin A, Turan E, et al. Clinical exacerbation developing during treatment of cutaneous leishmaniasis: an id reaction? Turkiye Parazitol Derg. 2014;38:281-282.
  31. Connor CJ, Selby JC, Wanat KA. Severe pediculosis capitus: a case of “crusted lice” with autoeczematization. Dermatol Online J. 2016;22:13030/qt7c91z913.
  32. Shelley WB. The autoimmune mechanism in clinical dermatology. Arch Dermatol. 1962;86:27-34.
  33. Bosworth A, Hull PR. Disseminated eczema following radiotherapy: a case report. J Cutan Med Surg. 2018;22:353-355.
  34. Lowther C, Miedler JD, Cockerell CJ. Id-like reaction to BCG therapy for bladder cancer. Cutis. 2013;91:145-151.
  35. Huerth KA, Glick PL, Glick ZR. Cutaneous id reaction after using cyanoacrylate for wound closure. Cutis. 2020;105:E11-E13.
  36. Amini S, Burdick AE, Janniger CK. Dyshidrotic eczema (pompholyx). Updated April 22, 2020. Accessed August 23, 2021. https://emedicine.medscape.com/article/1122527-overview
  37. Sundaresan S, Migden MR, Silapunt S. Stasis dermatitis: pathophysiology, evaluation, and management. Am J Clin Dermatol. 2017;18:383-390.
  38. Hughes JDM, Pratt MD. Allergic contact dermatitis and autoeczematization to proctosedyl® cream and proctomyxin® cream. Case Rep Dermatol. 2018;10:238-246. 
  39. Bains SN, Nash P, Fonacier L. Irritant contact dermatitis. Clin Rev Allergy Immunol. 2019;56:99-109. 
  40. Novak-Bilic´ G, Vucˇic´ M, Japundžic´ I, et al. Irritant and allergic contact dermatitis—skin lesion characteristics. Acta Clin Croat. 2018;57:713-720.
  41. Nassau S, Fonacier L. Allergic contact dermatitis. Med Clin North Am. 2020;104:61-76.
  42. Lewis DJ, Schlichte MJ, Dao H Jr. Atypical disseminated herpes zoster: management guidelines in immunocompromised patients. Cutis. 2017;100:321-330.
  43. Nedorost S, White S, Rowland DY, et al. Development and implementation of an order set to improve value of care for patients with severe stasis dermatitis. J Am Acad Dermatol. 2019;80:815-817.
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  • Autoeczematization, or id reaction, is a disseminated reaction of the skin occurring at a site distant to a primary cutaneous infection or stimulus.
  • T lymphocytes and keratinocytes are postulated to be involved in the pathogenesis of id reactions.
  • Therapy includes treating the underlying pathology while providing topical corticosteroids for the autoeczematous lesions.
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Atopic Dermatitis Oral Therapies: What Are Patients Learning on YouTube?

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To the Editor:

Oral immunosuppressive therapies are prescribed for moderate to severe atopic dermatitis. Patients often consult YouTube to make informed decisions about these therapies. In the United States, most health-related online searches are initiated through a search engine, which frequently leads to social media sites such as YouTube. Recent studies have examined the reasons why users turn to the Internet for health-related information, indicating that users typically seek specific information regarding health concerns.1,2 Furthermore, social media platforms such as YouTube are a popular means of sharing health information with the public.3-5 Currently, YouTube has more than 1 billion registered users, and 30 million health-related videos are watched each day.6 Almost one-third of US consumers use YouTube, Facebook, and Twitter to obtain medical information.7 YouTube is a versatile tool because of its video-discovery mechanisms such as a keyword-based search engine, video-recommendation system, highlight feature for videos on home pages, and the capacity to embed YouTube videos on various web pages.8 Searchers use videos that are short, fast paced, emotion evoking, from credible sources, recently uploaded, and relevant to the searcher for aiding in health decisions.9 Furthermore, studies have demonstrated YouTube’s capacity to support a change in attitude and increase users’ knowledge. In fact, YouTube had higher impact on recall, attitudes, and behaviors when compared with written materials on other social media platforms, such as Facebook and Twitter.9 We conducted a cross-sectional study to examine the quality of YouTube videos on oral therapies for atopic dermatitis, such as cyclosporine, methotrexate, azathioprine, and mycophenolate mofetil.

On April 23, 2020, we performed 8 searches using a private browser with default filters on YouTube (Figure). Injectables were not included in the analysis, as the YouTube experience on dupilumab previously has been investigated.10 The top 40 videos from each search were screened by 3 researchers. Duplicates, non–English-language videos, and videos that did not discuss atopic dermatitis or oral therapies were excluded, resulting in 73 videos included in this analysis. Testimonials generated by patients made up 39 of 73 (53.4%) videos. Health care professionals created 23 of 73 (31.5%) videos, and educators with financial interest created 11 of 73 (15.1%) videos. The dates of production for the videos spanned from 2008 to 2020.

Algorithm for YouTube searches on oral therapies for atopic dermatitis and process of video exclusion.


The major topics addressed in the videos were symptomatic changes (63 [68.8% of all topics discussed]), adverse effects (52 [67.5%]), and quality-of-life changes (37 [48.1%]). Of the videos included, the majority (42/73 [57.5%]) contained a neutral tone about the medication, citing advantages and disadvantages with therapy, while 22 of 73 (30.1%) had an encouraging tone, and 9 of 73 (12.3%) had a discouraging tone. Regarding videos with positive tones, there were 17 videos on cyclosporine, 9 on azathioprine, 7 on methotrexate, 4 on oral steroids, and 2 on mycophenolate mofetil. Regarding videos with negative tones, there were 4 on cyclosporine, 3 on azathioprine, 2 on methotrexate, and 2 on mycophenolate mofetil.

Of the videos made with financial interest, the majority (28/34 [77.8%]) were more suitable for informing health care providers rather than patients, containing jargon as well as complex information on clinical trials, dosing, and mechanisms of action. From the videos discussing clinical recommendations, there were 9 of 73 (12.3%) Grade A recommendations (eg, citing evidence-based information and clinical trials) and 64 of 73 (87.7%) Grade B recommendations (eg, anecdotal information on patient experience). Thirty-seven of 73 (50.7%) videos were evidence based, and 36 of 73 (49.3%) were non–evidence based. Six videos were patient-oriented news broadcasts.

Patient-generated testimonials had the most views (mean, 9238.4) and highest interaction ratio (the sum of likes, dislikes, and comments divided by the number of views)(mean, 0.027), while health care provider–generated videos had fewer views (mean, 9218.7) and a lower interaction ratio (mean, 0.011). Financial-based videos had 4233.4 views on average, with an average interaction ratio of 0.014. Based on these results, biased, patient-generated content comprised greater than 50% of YouTube videos about oral therapies for atopic dermatitis and was quite likely to be engaged with by users. Thus, these patient testimonials have great potential to affect decision-making.

The high number of patient-generated videos about oral therapies was consistent with prior studies of YouTube videos about therapies for numerous conditions.11-13 Dermatologists should consider utilizing YouTube for providing evidence-based, patient-oriented information about novel therapeutics. They may consider collaborating with patients to assist with their creation of YouTube videos and directing patients to credible resources by the American Academy of Dermatology and Canadian Dermatology Association for decision-making.



Importantly, this analysis is limited by its lack of quality-assessment tools for video-based resources such as JAMA score and DISCERN score.14,15 However, these metrics have limited ability to evaluate audiovisual elements, indicating the need for novel tools to score their validity.

References
  1. Fox S, Duggan M. Health online 2013. January 15, 2013. Accessed August 15, 2021. https://www.pewresearch.org/internet/2013/01/15/health-online-2013/
  2. Ní Ríordáin R, McCreary C. Dental patients’ use of the Internet. Br Dent J. 2009;207:583-586, 575.
  3. Fergie G, Hilton S, Hunt K. Young adults’ experiences of seeking online information about diabetes and mental health in the age of social media. Health Expect. 2016;19:1324-1335.
  4. Antheunis ML, Tates K, Nieboer TE. Patients’ and health professionals’ use of social media in health care: motives, barriers and expectations. Patient Educ Couns. 2013;92:426-431.
  5. McGregor F, Somner JE, Bourne RR, et al. Social media use by patients with glaucoma: what can we learn? Ophthalmic Physiol Opt. 2014;34:46-52.
  6. YouTube Statistics—15 Amazing Stats for 2015. Published April 30, 2015. Accessed August 27, 2021. YouTube.com/watch?v=9ZLBSPzY7GQ
  7. Health Research Institute. Social media “likes” healthcare: from marketing to social business. April 2012. Accessed August 15, 2021. https://www.pwc.com/us/en/health-industries/health-research-institute/publications/pdf/health-care-social-media-report.pdf
  8. Zhou R, Khemmarat S, Gao L, et al. How YouTube videos are discovered and its impact on videos views. Multimed Tools Appl. 2016;75:6035-6058.
  9. Haslam K, Doucette H, Hachey S, et al. YouTube videos as health decision aids for the public: an integrative review. Can J Dent Hyg. 2019;53:53-66.
  10. Pithadia D, Reynolds K, Lee E, et al. Dupilumab for atopic dermatitis: what are patients learning on YouTube [published online ahead of print April 16,2020]? J Dermatolog Treat. doi: 10.1080/09546634.2020.1755418
  11. Tolu S, Yurdakul OV, Basaran B, et al. English-language videos on YouTube as a source of information on self-administer subcutaneous anti-tumour necrosis factor agent injections. Rheumatol Int. 2018;38:1285-1292.
  12. Reynolds KA, Pithadia DJ, Lee EB, et al. A cross-sectional study of YouTube videos about psoriasis biologics. Int J Dermatol. 2019;58:E61-E62.
  13. Kocyigit BF, Akaltun MS. Does YouTube provide high quality information? assessment of secukinumab videos. Rheumatol Int. 2019;39:1263-1268.
  14. Qi J, Trang T, Doong J, et al. Misinformation is prevalent in psoriasis-related YouTube videos. Dermatol Online J. 2016;22:13030/qt7qc9z2m5
  15. Gokcen HB, Gumussuyu G. A quality analysis of disc herniation videos on YouTube. World Neurosurg. 2019;124:E799-E804.
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Author and Disclosure Information

Dr. Naderi-Azad is from the University of Toronto, Ontario, Canada. Ms. Ivanic is from Meharry Medical College, Nashville, Tennessee. Ms. Walia is from Lake Erie College of Osteopathic Medicine, Bradenton, Florida. Dr. Wu is from Dermatology Research and Education Foundation, Irvine, California.

Ms. Naderi-Azad, Ms. Ivanic, and Ms. Walia report no conflict of interest. Dr. Wu is or has been an investigator, consultant, or speaker for AbbVie; Almirall; Amgen; Arcutis Biotherapeutics; Boehringer Ingelheim; Bristol-Myers Squibb; Celgene; Dermavant Sciences, Inc; Dermira, Inc; Dr. Reddy’s Laboratories; Eli Lilly and Company; Janssen Pharmaceuticals; LEO Pharma; Novartis; Regeneron Pharmaceuticals; Sanofi Genzyme; Sun Pharmaceutical Industries Ltd; UCB; and Valeant Pharmaceuticals North America LLC.

Correspondence: Jashin J. Wu, MD (jashinwu@hotmail.com).

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Dr. Naderi-Azad is from the University of Toronto, Ontario, Canada. Ms. Ivanic is from Meharry Medical College, Nashville, Tennessee. Ms. Walia is from Lake Erie College of Osteopathic Medicine, Bradenton, Florida. Dr. Wu is from Dermatology Research and Education Foundation, Irvine, California.

Ms. Naderi-Azad, Ms. Ivanic, and Ms. Walia report no conflict of interest. Dr. Wu is or has been an investigator, consultant, or speaker for AbbVie; Almirall; Amgen; Arcutis Biotherapeutics; Boehringer Ingelheim; Bristol-Myers Squibb; Celgene; Dermavant Sciences, Inc; Dermira, Inc; Dr. Reddy’s Laboratories; Eli Lilly and Company; Janssen Pharmaceuticals; LEO Pharma; Novartis; Regeneron Pharmaceuticals; Sanofi Genzyme; Sun Pharmaceutical Industries Ltd; UCB; and Valeant Pharmaceuticals North America LLC.

Correspondence: Jashin J. Wu, MD (jashinwu@hotmail.com).

Author and Disclosure Information

Dr. Naderi-Azad is from the University of Toronto, Ontario, Canada. Ms. Ivanic is from Meharry Medical College, Nashville, Tennessee. Ms. Walia is from Lake Erie College of Osteopathic Medicine, Bradenton, Florida. Dr. Wu is from Dermatology Research and Education Foundation, Irvine, California.

Ms. Naderi-Azad, Ms. Ivanic, and Ms. Walia report no conflict of interest. Dr. Wu is or has been an investigator, consultant, or speaker for AbbVie; Almirall; Amgen; Arcutis Biotherapeutics; Boehringer Ingelheim; Bristol-Myers Squibb; Celgene; Dermavant Sciences, Inc; Dermira, Inc; Dr. Reddy’s Laboratories; Eli Lilly and Company; Janssen Pharmaceuticals; LEO Pharma; Novartis; Regeneron Pharmaceuticals; Sanofi Genzyme; Sun Pharmaceutical Industries Ltd; UCB; and Valeant Pharmaceuticals North America LLC.

Correspondence: Jashin J. Wu, MD (jashinwu@hotmail.com).

Article PDF
Article PDF

 

To the Editor:

Oral immunosuppressive therapies are prescribed for moderate to severe atopic dermatitis. Patients often consult YouTube to make informed decisions about these therapies. In the United States, most health-related online searches are initiated through a search engine, which frequently leads to social media sites such as YouTube. Recent studies have examined the reasons why users turn to the Internet for health-related information, indicating that users typically seek specific information regarding health concerns.1,2 Furthermore, social media platforms such as YouTube are a popular means of sharing health information with the public.3-5 Currently, YouTube has more than 1 billion registered users, and 30 million health-related videos are watched each day.6 Almost one-third of US consumers use YouTube, Facebook, and Twitter to obtain medical information.7 YouTube is a versatile tool because of its video-discovery mechanisms such as a keyword-based search engine, video-recommendation system, highlight feature for videos on home pages, and the capacity to embed YouTube videos on various web pages.8 Searchers use videos that are short, fast paced, emotion evoking, from credible sources, recently uploaded, and relevant to the searcher for aiding in health decisions.9 Furthermore, studies have demonstrated YouTube’s capacity to support a change in attitude and increase users’ knowledge. In fact, YouTube had higher impact on recall, attitudes, and behaviors when compared with written materials on other social media platforms, such as Facebook and Twitter.9 We conducted a cross-sectional study to examine the quality of YouTube videos on oral therapies for atopic dermatitis, such as cyclosporine, methotrexate, azathioprine, and mycophenolate mofetil.

On April 23, 2020, we performed 8 searches using a private browser with default filters on YouTube (Figure). Injectables were not included in the analysis, as the YouTube experience on dupilumab previously has been investigated.10 The top 40 videos from each search were screened by 3 researchers. Duplicates, non–English-language videos, and videos that did not discuss atopic dermatitis or oral therapies were excluded, resulting in 73 videos included in this analysis. Testimonials generated by patients made up 39 of 73 (53.4%) videos. Health care professionals created 23 of 73 (31.5%) videos, and educators with financial interest created 11 of 73 (15.1%) videos. The dates of production for the videos spanned from 2008 to 2020.

Algorithm for YouTube searches on oral therapies for atopic dermatitis and process of video exclusion.


The major topics addressed in the videos were symptomatic changes (63 [68.8% of all topics discussed]), adverse effects (52 [67.5%]), and quality-of-life changes (37 [48.1%]). Of the videos included, the majority (42/73 [57.5%]) contained a neutral tone about the medication, citing advantages and disadvantages with therapy, while 22 of 73 (30.1%) had an encouraging tone, and 9 of 73 (12.3%) had a discouraging tone. Regarding videos with positive tones, there were 17 videos on cyclosporine, 9 on azathioprine, 7 on methotrexate, 4 on oral steroids, and 2 on mycophenolate mofetil. Regarding videos with negative tones, there were 4 on cyclosporine, 3 on azathioprine, 2 on methotrexate, and 2 on mycophenolate mofetil.

Of the videos made with financial interest, the majority (28/34 [77.8%]) were more suitable for informing health care providers rather than patients, containing jargon as well as complex information on clinical trials, dosing, and mechanisms of action. From the videos discussing clinical recommendations, there were 9 of 73 (12.3%) Grade A recommendations (eg, citing evidence-based information and clinical trials) and 64 of 73 (87.7%) Grade B recommendations (eg, anecdotal information on patient experience). Thirty-seven of 73 (50.7%) videos were evidence based, and 36 of 73 (49.3%) were non–evidence based. Six videos were patient-oriented news broadcasts.

Patient-generated testimonials had the most views (mean, 9238.4) and highest interaction ratio (the sum of likes, dislikes, and comments divided by the number of views)(mean, 0.027), while health care provider–generated videos had fewer views (mean, 9218.7) and a lower interaction ratio (mean, 0.011). Financial-based videos had 4233.4 views on average, with an average interaction ratio of 0.014. Based on these results, biased, patient-generated content comprised greater than 50% of YouTube videos about oral therapies for atopic dermatitis and was quite likely to be engaged with by users. Thus, these patient testimonials have great potential to affect decision-making.

The high number of patient-generated videos about oral therapies was consistent with prior studies of YouTube videos about therapies for numerous conditions.11-13 Dermatologists should consider utilizing YouTube for providing evidence-based, patient-oriented information about novel therapeutics. They may consider collaborating with patients to assist with their creation of YouTube videos and directing patients to credible resources by the American Academy of Dermatology and Canadian Dermatology Association for decision-making.



Importantly, this analysis is limited by its lack of quality-assessment tools for video-based resources such as JAMA score and DISCERN score.14,15 However, these metrics have limited ability to evaluate audiovisual elements, indicating the need for novel tools to score their validity.

 

To the Editor:

Oral immunosuppressive therapies are prescribed for moderate to severe atopic dermatitis. Patients often consult YouTube to make informed decisions about these therapies. In the United States, most health-related online searches are initiated through a search engine, which frequently leads to social media sites such as YouTube. Recent studies have examined the reasons why users turn to the Internet for health-related information, indicating that users typically seek specific information regarding health concerns.1,2 Furthermore, social media platforms such as YouTube are a popular means of sharing health information with the public.3-5 Currently, YouTube has more than 1 billion registered users, and 30 million health-related videos are watched each day.6 Almost one-third of US consumers use YouTube, Facebook, and Twitter to obtain medical information.7 YouTube is a versatile tool because of its video-discovery mechanisms such as a keyword-based search engine, video-recommendation system, highlight feature for videos on home pages, and the capacity to embed YouTube videos on various web pages.8 Searchers use videos that are short, fast paced, emotion evoking, from credible sources, recently uploaded, and relevant to the searcher for aiding in health decisions.9 Furthermore, studies have demonstrated YouTube’s capacity to support a change in attitude and increase users’ knowledge. In fact, YouTube had higher impact on recall, attitudes, and behaviors when compared with written materials on other social media platforms, such as Facebook and Twitter.9 We conducted a cross-sectional study to examine the quality of YouTube videos on oral therapies for atopic dermatitis, such as cyclosporine, methotrexate, azathioprine, and mycophenolate mofetil.

On April 23, 2020, we performed 8 searches using a private browser with default filters on YouTube (Figure). Injectables were not included in the analysis, as the YouTube experience on dupilumab previously has been investigated.10 The top 40 videos from each search were screened by 3 researchers. Duplicates, non–English-language videos, and videos that did not discuss atopic dermatitis or oral therapies were excluded, resulting in 73 videos included in this analysis. Testimonials generated by patients made up 39 of 73 (53.4%) videos. Health care professionals created 23 of 73 (31.5%) videos, and educators with financial interest created 11 of 73 (15.1%) videos. The dates of production for the videos spanned from 2008 to 2020.

Algorithm for YouTube searches on oral therapies for atopic dermatitis and process of video exclusion.


The major topics addressed in the videos were symptomatic changes (63 [68.8% of all topics discussed]), adverse effects (52 [67.5%]), and quality-of-life changes (37 [48.1%]). Of the videos included, the majority (42/73 [57.5%]) contained a neutral tone about the medication, citing advantages and disadvantages with therapy, while 22 of 73 (30.1%) had an encouraging tone, and 9 of 73 (12.3%) had a discouraging tone. Regarding videos with positive tones, there were 17 videos on cyclosporine, 9 on azathioprine, 7 on methotrexate, 4 on oral steroids, and 2 on mycophenolate mofetil. Regarding videos with negative tones, there were 4 on cyclosporine, 3 on azathioprine, 2 on methotrexate, and 2 on mycophenolate mofetil.

Of the videos made with financial interest, the majority (28/34 [77.8%]) were more suitable for informing health care providers rather than patients, containing jargon as well as complex information on clinical trials, dosing, and mechanisms of action. From the videos discussing clinical recommendations, there were 9 of 73 (12.3%) Grade A recommendations (eg, citing evidence-based information and clinical trials) and 64 of 73 (87.7%) Grade B recommendations (eg, anecdotal information on patient experience). Thirty-seven of 73 (50.7%) videos were evidence based, and 36 of 73 (49.3%) were non–evidence based. Six videos were patient-oriented news broadcasts.

Patient-generated testimonials had the most views (mean, 9238.4) and highest interaction ratio (the sum of likes, dislikes, and comments divided by the number of views)(mean, 0.027), while health care provider–generated videos had fewer views (mean, 9218.7) and a lower interaction ratio (mean, 0.011). Financial-based videos had 4233.4 views on average, with an average interaction ratio of 0.014. Based on these results, biased, patient-generated content comprised greater than 50% of YouTube videos about oral therapies for atopic dermatitis and was quite likely to be engaged with by users. Thus, these patient testimonials have great potential to affect decision-making.

The high number of patient-generated videos about oral therapies was consistent with prior studies of YouTube videos about therapies for numerous conditions.11-13 Dermatologists should consider utilizing YouTube for providing evidence-based, patient-oriented information about novel therapeutics. They may consider collaborating with patients to assist with their creation of YouTube videos and directing patients to credible resources by the American Academy of Dermatology and Canadian Dermatology Association for decision-making.



Importantly, this analysis is limited by its lack of quality-assessment tools for video-based resources such as JAMA score and DISCERN score.14,15 However, these metrics have limited ability to evaluate audiovisual elements, indicating the need for novel tools to score their validity.

References
  1. Fox S, Duggan M. Health online 2013. January 15, 2013. Accessed August 15, 2021. https://www.pewresearch.org/internet/2013/01/15/health-online-2013/
  2. Ní Ríordáin R, McCreary C. Dental patients’ use of the Internet. Br Dent J. 2009;207:583-586, 575.
  3. Fergie G, Hilton S, Hunt K. Young adults’ experiences of seeking online information about diabetes and mental health in the age of social media. Health Expect. 2016;19:1324-1335.
  4. Antheunis ML, Tates K, Nieboer TE. Patients’ and health professionals’ use of social media in health care: motives, barriers and expectations. Patient Educ Couns. 2013;92:426-431.
  5. McGregor F, Somner JE, Bourne RR, et al. Social media use by patients with glaucoma: what can we learn? Ophthalmic Physiol Opt. 2014;34:46-52.
  6. YouTube Statistics—15 Amazing Stats for 2015. Published April 30, 2015. Accessed August 27, 2021. YouTube.com/watch?v=9ZLBSPzY7GQ
  7. Health Research Institute. Social media “likes” healthcare: from marketing to social business. April 2012. Accessed August 15, 2021. https://www.pwc.com/us/en/health-industries/health-research-institute/publications/pdf/health-care-social-media-report.pdf
  8. Zhou R, Khemmarat S, Gao L, et al. How YouTube videos are discovered and its impact on videos views. Multimed Tools Appl. 2016;75:6035-6058.
  9. Haslam K, Doucette H, Hachey S, et al. YouTube videos as health decision aids for the public: an integrative review. Can J Dent Hyg. 2019;53:53-66.
  10. Pithadia D, Reynolds K, Lee E, et al. Dupilumab for atopic dermatitis: what are patients learning on YouTube [published online ahead of print April 16,2020]? J Dermatolog Treat. doi: 10.1080/09546634.2020.1755418
  11. Tolu S, Yurdakul OV, Basaran B, et al. English-language videos on YouTube as a source of information on self-administer subcutaneous anti-tumour necrosis factor agent injections. Rheumatol Int. 2018;38:1285-1292.
  12. Reynolds KA, Pithadia DJ, Lee EB, et al. A cross-sectional study of YouTube videos about psoriasis biologics. Int J Dermatol. 2019;58:E61-E62.
  13. Kocyigit BF, Akaltun MS. Does YouTube provide high quality information? assessment of secukinumab videos. Rheumatol Int. 2019;39:1263-1268.
  14. Qi J, Trang T, Doong J, et al. Misinformation is prevalent in psoriasis-related YouTube videos. Dermatol Online J. 2016;22:13030/qt7qc9z2m5
  15. Gokcen HB, Gumussuyu G. A quality analysis of disc herniation videos on YouTube. World Neurosurg. 2019;124:E799-E804.
References
  1. Fox S, Duggan M. Health online 2013. January 15, 2013. Accessed August 15, 2021. https://www.pewresearch.org/internet/2013/01/15/health-online-2013/
  2. Ní Ríordáin R, McCreary C. Dental patients’ use of the Internet. Br Dent J. 2009;207:583-586, 575.
  3. Fergie G, Hilton S, Hunt K. Young adults’ experiences of seeking online information about diabetes and mental health in the age of social media. Health Expect. 2016;19:1324-1335.
  4. Antheunis ML, Tates K, Nieboer TE. Patients’ and health professionals’ use of social media in health care: motives, barriers and expectations. Patient Educ Couns. 2013;92:426-431.
  5. McGregor F, Somner JE, Bourne RR, et al. Social media use by patients with glaucoma: what can we learn? Ophthalmic Physiol Opt. 2014;34:46-52.
  6. YouTube Statistics—15 Amazing Stats for 2015. Published April 30, 2015. Accessed August 27, 2021. YouTube.com/watch?v=9ZLBSPzY7GQ
  7. Health Research Institute. Social media “likes” healthcare: from marketing to social business. April 2012. Accessed August 15, 2021. https://www.pwc.com/us/en/health-industries/health-research-institute/publications/pdf/health-care-social-media-report.pdf
  8. Zhou R, Khemmarat S, Gao L, et al. How YouTube videos are discovered and its impact on videos views. Multimed Tools Appl. 2016;75:6035-6058.
  9. Haslam K, Doucette H, Hachey S, et al. YouTube videos as health decision aids for the public: an integrative review. Can J Dent Hyg. 2019;53:53-66.
  10. Pithadia D, Reynolds K, Lee E, et al. Dupilumab for atopic dermatitis: what are patients learning on YouTube [published online ahead of print April 16,2020]? J Dermatolog Treat. doi: 10.1080/09546634.2020.1755418
  11. Tolu S, Yurdakul OV, Basaran B, et al. English-language videos on YouTube as a source of information on self-administer subcutaneous anti-tumour necrosis factor agent injections. Rheumatol Int. 2018;38:1285-1292.
  12. Reynolds KA, Pithadia DJ, Lee EB, et al. A cross-sectional study of YouTube videos about psoriasis biologics. Int J Dermatol. 2019;58:E61-E62.
  13. Kocyigit BF, Akaltun MS. Does YouTube provide high quality information? assessment of secukinumab videos. Rheumatol Int. 2019;39:1263-1268.
  14. Qi J, Trang T, Doong J, et al. Misinformation is prevalent in psoriasis-related YouTube videos. Dermatol Online J. 2016;22:13030/qt7qc9z2m5
  15. Gokcen HB, Gumussuyu G. A quality analysis of disc herniation videos on YouTube. World Neurosurg. 2019;124:E799-E804.
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  • Patient-based YouTube videos comprised the majority of videos on oral therapies for atopic dermatitis, with the greatest views and interaction ratio.
  • Most YouTube videos on this topic contained a neutral tone and Grade B recommendations, thus meriting production of more evidence-based videos in collaboration with patients on the YouTube platform.
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Atopic Dermatitis Topical Therapies: Study of YouTube Videos as a Source of Patient Information

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To the Editor:

Atopic dermatitis (eczema) affects approximately 20% of children worldwide.1 In atopic dermatitis management, patient education is crucial for optimal outcomes.2 The COVID-19 pandemic has impacted patient-physician interactions. To ensure safety of patients and physicians, visits may have been canceled, postponed, or conducted virtually, leaving less time for discussion and questions.3 As a consequence, patients may seek information about atopic dermatitis from alternative sources, including YouTube videos. We performed a cross-sectional study to analyze YouTube videos about topical treatments for atopic dermatitis.

During the week of July 16, 2020, we performed 4 private browser YouTube searches with default filters using the following terms: eczema topicals, eczema topical treatments, atopic dermatitis topicals, and atopic dermatitis topical treatments. For video selection, we defined topical treatments as topical corticosteroids, topical calcineurin inhibitors, crisaborole, emollients, wet wraps, and any prospective treatment topically administered. For each of the 4 searches, 2 researchers (A.M. and A.T.) independently examined the top 75 videos, yielding a total of 300 videos. Of them, 98 videos were duplicates, 19 videos were not about atopic dermatitis, and 91 videos were not about topical treatments, leaving a total of 92 videos for analysis (Figure 1).

Figure 1. Visual representation of the YouTube video selection process.


For the 92 included videos, the length; upload year; number of views, likes, dislikes, and comments; interaction ratio (IR)(the sum of likes, dislikes, and comments divided by the number of views); and video content were determined. The videos were placed into mutually exclusive categories as follows: (1) patient experience, defined as a video about patient perspective; (2) professional source, defined as a video featuring a physician, physician extender, pharmacist, or scientist, or produced by a formal organization; or (3) other. The DISCERN Instrument was used for grading the reliability and quality of the 92 included videos. This instrument consists of 16 questions with the responses rated on a scale of 1 to 5.4 For analysis of DISCERN scores, patient experience and other videos were grouped together as nonprofessional source videos. A 2-sample t-test was used to compare DISCERN scores between professional source and nonprofessional source videos.

Most videos were uploaded in 2017 (n=19), 2018 (n=23), and 2019 (n=25), but 20 were uploaded in 2012-2016 and 5 were uploaded in 2020. The 92 videos had a mean length of 8 minutes and 35 seconds (range, 30 seconds to 62 minutes and 23 seconds).

Patient experience videos accounted for 23.9% (n=22) of videos. These videos discussed topical steroid withdrawal (TSW)(n=16), instructions for making emollients (n=2), and treatment successes (n=4). Professional source videos represented 67.4% (n=62) of videos. Of them, 40.3% (n=25) were physician oriented, defined as having extensive medical terminology or qualifying for continuing medical education credit. Three (4.8%) of the professional source videos were sponsored by a drug company. Other constituted the remaining 8.7% (n=8) of videos. Patient experience videos had more views (median views [interquartile range], 6865 [10,307]) and higher engagement (median IR [interquartile range], 0.038 [0.022]) than professional source videos (views: median views [interquartile range], 1052.5 [10,610.5]; engagement: median IR [interquartile range], 0.006 [0.008]).



Although less popular, professional source videos had a significantly higher DISCERN overall quality rating score (question 16) compared to those categorized as nonprofessional source (3.92 vs 1.53; P<.001). In contrast, nonprofessional source videos scored significantly higher on the quality-of-life question (question 13) compared to professional source videos (3.90 vs 2.56; P<.001)(eTable). (Three professional source videos were removed from YouTube before DISCERN scores could be assigned.)



Notably, 20.7% (n=19) of the 92 videos discussed TSW, and most of them were patient experiences (n=16). Other categories included topical steroids excluding TSW (n=11), steroid phobia (n=2), topical calcineurin inhibitors (n=2), crisaborole (n=6), news broadcast (n=7), wet wraps (n=5), product advertisement (n=7), and research (n=11)(Figure 2). Interestingly, there were no videos focusing on the calcineurin inhibitor black box warning.

Figure 2. Video categories for atopic dermatitis topical treatments. Featured categories are not mutually exclusive or comprehensivee. TSW indicates topical steroid withdrawal.


Similar to prior studies, our results indicate preference for patient-generated videos over videos produced by or including a professional source.5 Additionally, only 3 of 19 videos about TSW were from a professional source, increasing the potential for patient misconceptions about topical corticosteroids. Future studies should examine the educational impact of patient-generated videos as well as features that make the patient experience videos more desirable for viewing.
References
  1. Mueller SM, Hongler VNS, Jungo P, et al. Fiction, falsehoods, and few facts: cross-sectional study on the content-related quality of atopic eczema-related videos on YouTube. J Med Internet Res. 2020;22:e15599. doi:10.2196/15599
  2. Torres T, Ferreira EO, Gonçalo M, et al. Update on atopic dermatitis. Acta Med Port. 2019;32:606-613. doi:10.20344/amp.11963
  3. Vogler SA, Lightner AL. Rethinking how we care for our patients in a time of social distancing during the COVID-19 pandemic. Br J Surg. 2020;107:937-939. doi:10.1002/bjs.11636
  4. The DISCERN Instrument. discern online. Accessed January 22, 2021. http://www.discern.org.uk/discern_instrument.php
  5. Pithadia DJ, Reynolds KA, Lee EB, et al. Dupilumab for atopic dermatitis: what are patients learning on YouTube? [published online April 16, 2020]. J Dermatolog Treat. doi:10.1080/09546634.2020.1755418
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Author and Disclosure Information

Ms. Martin is from the School of Medicine, University of California, Riverside. Ms. Thatiparthi is from the College of Osteopathic Medicine of the Pacific, Western University of Health Sciences, Pomona, California. Mr. Liu is from the Keck School of Medicine, University of Southern California, Los Angeles. Dr. Wu is from Dermatology Research and Education Foundation, Irvine, California.

Ms. Martin, Ms. Thatiparthi, and Mr. Liu report no conflict of interest. Dr. Wu is or has been an investigator, consultant, or speaker for AbbVie, Almirall, Amgen, Arcutis Biotherapeutics, Aristea Therapeutics Inc., Boehringer Ingelheim, Bristol-Myers Squibb, Dermavant Sciences, Inc, Dr. Reddy’s Laboratories, Eli Lilly and Company, Galderma, Janssen Pharmaceuticals, LEO Pharma, Mindera, Novartis, Regeneron Pharmaceuticals, Sanofi Genzyme, SOLIUS, Sun Pharmaceutical Industries Ltd, UCB, Valeant Pharmaceuticals North America LLC, and Zerigo Health.

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

Correspondence: Jashin J. Wu, MD (jashinwu@hotmail.com).

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Ms. Martin is from the School of Medicine, University of California, Riverside. Ms. Thatiparthi is from the College of Osteopathic Medicine of the Pacific, Western University of Health Sciences, Pomona, California. Mr. Liu is from the Keck School of Medicine, University of Southern California, Los Angeles. Dr. Wu is from Dermatology Research and Education Foundation, Irvine, California.

Ms. Martin, Ms. Thatiparthi, and Mr. Liu report no conflict of interest. Dr. Wu is or has been an investigator, consultant, or speaker for AbbVie, Almirall, Amgen, Arcutis Biotherapeutics, Aristea Therapeutics Inc., Boehringer Ingelheim, Bristol-Myers Squibb, Dermavant Sciences, Inc, Dr. Reddy’s Laboratories, Eli Lilly and Company, Galderma, Janssen Pharmaceuticals, LEO Pharma, Mindera, Novartis, Regeneron Pharmaceuticals, Sanofi Genzyme, SOLIUS, Sun Pharmaceutical Industries Ltd, UCB, Valeant Pharmaceuticals North America LLC, and Zerigo Health.

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

Correspondence: Jashin J. Wu, MD (jashinwu@hotmail.com).

Author and Disclosure Information

Ms. Martin is from the School of Medicine, University of California, Riverside. Ms. Thatiparthi is from the College of Osteopathic Medicine of the Pacific, Western University of Health Sciences, Pomona, California. Mr. Liu is from the Keck School of Medicine, University of Southern California, Los Angeles. Dr. Wu is from Dermatology Research and Education Foundation, Irvine, California.

Ms. Martin, Ms. Thatiparthi, and Mr. Liu report no conflict of interest. Dr. Wu is or has been an investigator, consultant, or speaker for AbbVie, Almirall, Amgen, Arcutis Biotherapeutics, Aristea Therapeutics Inc., Boehringer Ingelheim, Bristol-Myers Squibb, Dermavant Sciences, Inc, Dr. Reddy’s Laboratories, Eli Lilly and Company, Galderma, Janssen Pharmaceuticals, LEO Pharma, Mindera, Novartis, Regeneron Pharmaceuticals, Sanofi Genzyme, SOLIUS, Sun Pharmaceutical Industries Ltd, UCB, Valeant Pharmaceuticals North America LLC, and Zerigo Health.

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

Correspondence: Jashin J. Wu, MD (jashinwu@hotmail.com).

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To the Editor:

Atopic dermatitis (eczema) affects approximately 20% of children worldwide.1 In atopic dermatitis management, patient education is crucial for optimal outcomes.2 The COVID-19 pandemic has impacted patient-physician interactions. To ensure safety of patients and physicians, visits may have been canceled, postponed, or conducted virtually, leaving less time for discussion and questions.3 As a consequence, patients may seek information about atopic dermatitis from alternative sources, including YouTube videos. We performed a cross-sectional study to analyze YouTube videos about topical treatments for atopic dermatitis.

During the week of July 16, 2020, we performed 4 private browser YouTube searches with default filters using the following terms: eczema topicals, eczema topical treatments, atopic dermatitis topicals, and atopic dermatitis topical treatments. For video selection, we defined topical treatments as topical corticosteroids, topical calcineurin inhibitors, crisaborole, emollients, wet wraps, and any prospective treatment topically administered. For each of the 4 searches, 2 researchers (A.M. and A.T.) independently examined the top 75 videos, yielding a total of 300 videos. Of them, 98 videos were duplicates, 19 videos were not about atopic dermatitis, and 91 videos were not about topical treatments, leaving a total of 92 videos for analysis (Figure 1).

Figure 1. Visual representation of the YouTube video selection process.


For the 92 included videos, the length; upload year; number of views, likes, dislikes, and comments; interaction ratio (IR)(the sum of likes, dislikes, and comments divided by the number of views); and video content were determined. The videos were placed into mutually exclusive categories as follows: (1) patient experience, defined as a video about patient perspective; (2) professional source, defined as a video featuring a physician, physician extender, pharmacist, or scientist, or produced by a formal organization; or (3) other. The DISCERN Instrument was used for grading the reliability and quality of the 92 included videos. This instrument consists of 16 questions with the responses rated on a scale of 1 to 5.4 For analysis of DISCERN scores, patient experience and other videos were grouped together as nonprofessional source videos. A 2-sample t-test was used to compare DISCERN scores between professional source and nonprofessional source videos.

Most videos were uploaded in 2017 (n=19), 2018 (n=23), and 2019 (n=25), but 20 were uploaded in 2012-2016 and 5 were uploaded in 2020. The 92 videos had a mean length of 8 minutes and 35 seconds (range, 30 seconds to 62 minutes and 23 seconds).

Patient experience videos accounted for 23.9% (n=22) of videos. These videos discussed topical steroid withdrawal (TSW)(n=16), instructions for making emollients (n=2), and treatment successes (n=4). Professional source videos represented 67.4% (n=62) of videos. Of them, 40.3% (n=25) were physician oriented, defined as having extensive medical terminology or qualifying for continuing medical education credit. Three (4.8%) of the professional source videos were sponsored by a drug company. Other constituted the remaining 8.7% (n=8) of videos. Patient experience videos had more views (median views [interquartile range], 6865 [10,307]) and higher engagement (median IR [interquartile range], 0.038 [0.022]) than professional source videos (views: median views [interquartile range], 1052.5 [10,610.5]; engagement: median IR [interquartile range], 0.006 [0.008]).



Although less popular, professional source videos had a significantly higher DISCERN overall quality rating score (question 16) compared to those categorized as nonprofessional source (3.92 vs 1.53; P<.001). In contrast, nonprofessional source videos scored significantly higher on the quality-of-life question (question 13) compared to professional source videos (3.90 vs 2.56; P<.001)(eTable). (Three professional source videos were removed from YouTube before DISCERN scores could be assigned.)



Notably, 20.7% (n=19) of the 92 videos discussed TSW, and most of them were patient experiences (n=16). Other categories included topical steroids excluding TSW (n=11), steroid phobia (n=2), topical calcineurin inhibitors (n=2), crisaborole (n=6), news broadcast (n=7), wet wraps (n=5), product advertisement (n=7), and research (n=11)(Figure 2). Interestingly, there were no videos focusing on the calcineurin inhibitor black box warning.

Figure 2. Video categories for atopic dermatitis topical treatments. Featured categories are not mutually exclusive or comprehensivee. TSW indicates topical steroid withdrawal.


Similar to prior studies, our results indicate preference for patient-generated videos over videos produced by or including a professional source.5 Additionally, only 3 of 19 videos about TSW were from a professional source, increasing the potential for patient misconceptions about topical corticosteroids. Future studies should examine the educational impact of patient-generated videos as well as features that make the patient experience videos more desirable for viewing.

 

To the Editor:

Atopic dermatitis (eczema) affects approximately 20% of children worldwide.1 In atopic dermatitis management, patient education is crucial for optimal outcomes.2 The COVID-19 pandemic has impacted patient-physician interactions. To ensure safety of patients and physicians, visits may have been canceled, postponed, or conducted virtually, leaving less time for discussion and questions.3 As a consequence, patients may seek information about atopic dermatitis from alternative sources, including YouTube videos. We performed a cross-sectional study to analyze YouTube videos about topical treatments for atopic dermatitis.

During the week of July 16, 2020, we performed 4 private browser YouTube searches with default filters using the following terms: eczema topicals, eczema topical treatments, atopic dermatitis topicals, and atopic dermatitis topical treatments. For video selection, we defined topical treatments as topical corticosteroids, topical calcineurin inhibitors, crisaborole, emollients, wet wraps, and any prospective treatment topically administered. For each of the 4 searches, 2 researchers (A.M. and A.T.) independently examined the top 75 videos, yielding a total of 300 videos. Of them, 98 videos were duplicates, 19 videos were not about atopic dermatitis, and 91 videos were not about topical treatments, leaving a total of 92 videos for analysis (Figure 1).

Figure 1. Visual representation of the YouTube video selection process.


For the 92 included videos, the length; upload year; number of views, likes, dislikes, and comments; interaction ratio (IR)(the sum of likes, dislikes, and comments divided by the number of views); and video content were determined. The videos were placed into mutually exclusive categories as follows: (1) patient experience, defined as a video about patient perspective; (2) professional source, defined as a video featuring a physician, physician extender, pharmacist, or scientist, or produced by a formal organization; or (3) other. The DISCERN Instrument was used for grading the reliability and quality of the 92 included videos. This instrument consists of 16 questions with the responses rated on a scale of 1 to 5.4 For analysis of DISCERN scores, patient experience and other videos were grouped together as nonprofessional source videos. A 2-sample t-test was used to compare DISCERN scores between professional source and nonprofessional source videos.

Most videos were uploaded in 2017 (n=19), 2018 (n=23), and 2019 (n=25), but 20 were uploaded in 2012-2016 and 5 were uploaded in 2020. The 92 videos had a mean length of 8 minutes and 35 seconds (range, 30 seconds to 62 minutes and 23 seconds).

Patient experience videos accounted for 23.9% (n=22) of videos. These videos discussed topical steroid withdrawal (TSW)(n=16), instructions for making emollients (n=2), and treatment successes (n=4). Professional source videos represented 67.4% (n=62) of videos. Of them, 40.3% (n=25) were physician oriented, defined as having extensive medical terminology or qualifying for continuing medical education credit. Three (4.8%) of the professional source videos were sponsored by a drug company. Other constituted the remaining 8.7% (n=8) of videos. Patient experience videos had more views (median views [interquartile range], 6865 [10,307]) and higher engagement (median IR [interquartile range], 0.038 [0.022]) than professional source videos (views: median views [interquartile range], 1052.5 [10,610.5]; engagement: median IR [interquartile range], 0.006 [0.008]).



Although less popular, professional source videos had a significantly higher DISCERN overall quality rating score (question 16) compared to those categorized as nonprofessional source (3.92 vs 1.53; P<.001). In contrast, nonprofessional source videos scored significantly higher on the quality-of-life question (question 13) compared to professional source videos (3.90 vs 2.56; P<.001)(eTable). (Three professional source videos were removed from YouTube before DISCERN scores could be assigned.)



Notably, 20.7% (n=19) of the 92 videos discussed TSW, and most of them were patient experiences (n=16). Other categories included topical steroids excluding TSW (n=11), steroid phobia (n=2), topical calcineurin inhibitors (n=2), crisaborole (n=6), news broadcast (n=7), wet wraps (n=5), product advertisement (n=7), and research (n=11)(Figure 2). Interestingly, there were no videos focusing on the calcineurin inhibitor black box warning.

Figure 2. Video categories for atopic dermatitis topical treatments. Featured categories are not mutually exclusive or comprehensivee. TSW indicates topical steroid withdrawal.


Similar to prior studies, our results indicate preference for patient-generated videos over videos produced by or including a professional source.5 Additionally, only 3 of 19 videos about TSW were from a professional source, increasing the potential for patient misconceptions about topical corticosteroids. Future studies should examine the educational impact of patient-generated videos as well as features that make the patient experience videos more desirable for viewing.
References
  1. Mueller SM, Hongler VNS, Jungo P, et al. Fiction, falsehoods, and few facts: cross-sectional study on the content-related quality of atopic eczema-related videos on YouTube. J Med Internet Res. 2020;22:e15599. doi:10.2196/15599
  2. Torres T, Ferreira EO, Gonçalo M, et al. Update on atopic dermatitis. Acta Med Port. 2019;32:606-613. doi:10.20344/amp.11963
  3. Vogler SA, Lightner AL. Rethinking how we care for our patients in a time of social distancing during the COVID-19 pandemic. Br J Surg. 2020;107:937-939. doi:10.1002/bjs.11636
  4. The DISCERN Instrument. discern online. Accessed January 22, 2021. http://www.discern.org.uk/discern_instrument.php
  5. Pithadia DJ, Reynolds KA, Lee EB, et al. Dupilumab for atopic dermatitis: what are patients learning on YouTube? [published online April 16, 2020]. J Dermatolog Treat. doi:10.1080/09546634.2020.1755418
References
  1. Mueller SM, Hongler VNS, Jungo P, et al. Fiction, falsehoods, and few facts: cross-sectional study on the content-related quality of atopic eczema-related videos on YouTube. J Med Internet Res. 2020;22:e15599. doi:10.2196/15599
  2. Torres T, Ferreira EO, Gonçalo M, et al. Update on atopic dermatitis. Acta Med Port. 2019;32:606-613. doi:10.20344/amp.11963
  3. Vogler SA, Lightner AL. Rethinking how we care for our patients in a time of social distancing during the COVID-19 pandemic. Br J Surg. 2020;107:937-939. doi:10.1002/bjs.11636
  4. The DISCERN Instrument. discern online. Accessed January 22, 2021. http://www.discern.org.uk/discern_instrument.php
  5. Pithadia DJ, Reynolds KA, Lee EB, et al. Dupilumab for atopic dermatitis: what are patients learning on YouTube? [published online April 16, 2020]. J Dermatolog Treat. doi:10.1080/09546634.2020.1755418
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  • YouTube is a readily accessible resource for educating patients about topical treatments for atopic dermatitis.
  • Although professional source videos comprised a larger percentage of the videos included within our study, patient experience videos had a higher number of views and engagement.
  • Twenty-one percent (19/92) of the videos examined in our study discussed topical steroid withdrawal, and the majority of them were patient experience videos.
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