In May 15, 1976, Family Practice News published its first “Residents’ Viewpoint,” a monthly column the publication established “in an effort to keep established practitioners as well as residents up to date.”

We are currently republishing an installment of this column as part of our continuing celebration of Family Practice News’s 50th anniversary.

MDedge News

Bruce A. Bagley, MD, wrote the first batch of these columns, when he was chief resident in family medicine at St. Joseph’s Hospital, Syracuse, N.Y. Joseph E. Scherger, MD, was the second writer for Family Practice News’s monthly “Residents’ Viewpoint.” At the time Dr. Scher­ger became a columnist, he was a 26-year-old, 2nd-year family practice resident at the Family Medical Center, University Hospital, University of Washington, Seattle.

Dr. Scherger’s first column was published on Feb. 5, 1977. We are republishing his “Residents’ Viewpoint” from June 15, 1977 (see below) and a new column by Victoria Persampiere, DO, who is currently a 2nd-year resident in the family medicine program at Abington Jefferson Health. (See “My experience as a family medicine resident in 2021” after Dr. Scherger’s column.).

We hope you will enjoy comparing and contrasting the experiences of a resident practicing family medicine today to those of a resident practicing family medicine nearly 4½ decades ago.To learn about Dr. Scherger’s current practice and long career, you can read his profile on the cover of the September 2021 issue of Family Practice News or on MDedge.com/FamilyMedicine in our “Family Practice News 50th Anniversary” section.
 

Art of medicine or deception?

Originally published in Family Practice News on June 15, 1977.

The practice of medicine can be divided into the scientific aspects of diagnosis and treatment and the nonscientific aspects of meeting patients’ needs, the art of medicine.

In medical school I learned the science of medicine. There I diligently studied the basic sciences and gained a thorough understanding of the pathophysiology of disease. In the clinical years I learned to apply this knowledge to a wide variety of interesting patients who came to the academic center.

Yet, when I started my family practice residency, I lacked the ability to care for patients. Though I could take a thorough history, perform a complete physical examination, and diagnose and treat specific illnesses, I had little idea how to satisfy patients by meeting their needs.

The art of medicine is the nonscientific part of a successful doctor-patient interaction. For a doctor-patient interaction to be successful, not only must the illness be appropriately addressed, but both patient and physician must be satisfied.

In the university environment, the art of medicine often gets inadequate attention. Indeed, most academic physicians think that only scientific medicine exists and that patients should be satisfied with a sophisticated approach to their problems. Some patients are satisfied, but many are disgruntled. It is not unusual for a patient, after a $1,000 work-up, to go to a family physician or chiropractor for satisfaction.

I was eager to discover the art of medicine at its finest during my rotation away from the university in a rural community. During these 2 months I looked for the pearls of wisdom that allowed community physicians to be so successful. I found that a very explicit technique was used by some physicians to achieve not only satisfaction but adoration from their patients. Unfortunately, this technique is dishonest.

Early in my community experience I was impressed by how often patients told me a doctor had saved them. I heard such statements as “Dr. X saved my leg,” or “Dr. X saved my life.” I know that it does occur, but not as often as I was hearing it.

Investigating these statements I found such stories as, “One day l twisted my ankle very badly, and it became quite swollen. My doctor told me 1 could lose my leg from this but that he would take x-rays, put my leg in an Ace bandage, and give me crutches. In 3 days I was well. I am so thankful he saved my leg.”

And, “One day I had a temperature of 104. All of my muscles ached, my head hurt, and I had a terrible sore throat and cough. My doctor told me l could die from this, but he gave me a medicine and made me stay home. I was sick for about 2 weeks, but I got better. He saved my life.”

Is the art of medicine the art of deception? This horrifying thought actually came to me after hearing several such stories, but I learned that most of the physicians involved in such stories were not well respected by their colleagues.

I learned many honest techniques for successfully caring for patients. The several family physicians with whom I worked, all clinical instructors associated with my residency, were impeccably honest and taught me to combine compassion and efficiency.

Despite learning many positive techniques and having good role models, I left the community experience somewhat saddened by the lack of integrity that can exist in the profession. I was naive in believing that all the nonscientific aspects of medi­cine that made patients happy must be good.

By experiencing deception, I learned why quackery continues to flourish despite the widespread availability of honest medical care. Most significantly, I learned the importance of a sometimes frustrating humility; my patients with sprained ankles and influenza will not believe I saved their lives.

My experience as a family medicine resident in 2021

I graduated medical school in May 2020, right as COVID was taking over the country, and the specter of the virus has hung over every aspect of my residency education thus far.

I did not get a medical school graduation; I was one of the many thousands of newly graduated students who simply left their 4th-year rotation sites one chilly day in March 2020 and just never went back. My medical school education didn’t end with me walking triumphantly across the stage – a first-generation college student finally achieving the greatest dream in her life. Instead, it ended with a Zoom “graduation” and a cross-country move from Georgia to Pennsylvania amidst the greatest pandemic in recent memory. To say my impostor syndrome was bad would be an understatement.
 

Residency in the COVID-19 era

The joy and the draw to family medicine for me has always been the broad scope of conditions that we see and treat. From day 1, however, much of my residency has been devoted to one very small subset of patients – those with COVID-19. At one point, our hospital was so strained that our family medicine program had to run a second inpatient service alongside our usual five-resident service team just to provide care to everybody. Patients were in the hallways. The ER was packed to the gills. We were sleepless, terrified, unvaccinated, and desperate to help our patients survive a disease that was incompletely understood, with very few tools in our toolbox to combat it.

I distinctly remember sitting in the workroom with a coresident of mine, our faces seemingly permanently lined from wearing N95s all shift, and saying to him, “I worry I will be a bad family medicine physician. I worry I haven’t seen enough, other than COVID.” It was midway through my intern year; the days were short, so I was driving to and from the hospital in chilly darkness. My patients, like many around the country, were doing poorly. Vaccines seemed like a promise too good to be true. Worst of all: Those of us who were interns, who had no triumphant podium moment to end our medical school education, were suffering with an intense sense of impostor syndrome, which was strengthened by every “there is nothing else we can offer your loved one at this time” conversation we had. My apprehension about not having seen a wider breadth of medicine during my training is a sentiment still widely shared by COVID-era residents.

Luckily, my coresident was supportive.

“We’re going to be great family medicine physicians,” he said. “We’re learning the hard stuff – the bread and butter of FM – up-front. You’ll see.”

In some ways, I think he was right. Clinical skills, empathy, humility, and forging strong relationships are at the center of every family medicine physician’s heart; my generation has had to learn these skills early and under pressure. Sometimes, there are no answers. Sometimes, the best thing a family doctor can do for a patient is to hear them, understand them, and hold their hand.
 

‘We watched Cinderella together’

Shortly after that conversation with my coresident, I had a particular case which moved me. This gentleman with intellectual disability and COVID had been declining steadily since his admission to the hospital. He was isolated from everybody he knew and loved, but it did not dampen his spirits. He was cheerful to every person who entered his room, clad in their shrouds of PPE, which more often than not felt more like mourning garb than protective wear. I remember very little about this patient’s clinical picture – the COVID, the superimposed pneumonia, the repeated intubations. What I do remember is he loved the Disney classic Cinderella. I knew this because I developed a very close relationship with his family during the course of his hospitalization. Amidst the torrential onslaught of patients, I made sure to call families every day – not because I wanted to, but because my mentors and attendings and coresidents had all drilled into me from day 1 that we are family medicine, and a large part of our role is to advocate for our patients, and to communicate with their loved ones. So I called. I learned a lot about him; his likes, his dislikes, his close bond with his siblings, and of course his lifelong love for Cinderella. On the last week of my ICU rotation, my patient passed peacefully. His nurse and I were bedside. We held his hand. We told him his family loved him. We watched Cinderella together on an iPad encased in protective plastic.

My next rotation was an outpatient one and it looked more like the “bread and butter” of family medicine. But as I whisked in and out of patient rooms, attending to patients with diabetes, with depression, with pain, I could not stop thinking about my hospitalized patients who my coresidents had assumed care of. Each exam room I entered, I rather morbidly thought “this patient could be next on our hospital service.” Without realizing it, I made more of an effort to get to know each patient holistically. I learned who they were as people. I found myself writing small, medically low-yield details in the chart: “Margaret loves to sing in her church choir;” “Katherine is a self-published author.”

I learned from my attendings. As I sat at the precepting table with them, observing their conversations about patients, their collective decades of experience were apparent.

“I’ve been seeing this patient every few weeks since I was a resident,” said one of my attendings.

“I don’t even see my parents that often,” I thought.

The depth of her relationship with, understanding of, and compassion for this patient struck me deeply. This was why I went into family medicine. My attending knew her patients; they were not faceless unknowns in a hospital gown to her. She would have known to play Cinderella for them in the end.

This is a unique time for trainees. We have been challenged, terrified, overwhelmed, and heartbroken. But at no point have we been isolated. We’ve had the generations of doctors before us to lead the way, to teach us the “hard stuff.” We’ve had senior residents to lean on, who have taken us aside and told us, “I can do the goals-of-care talk today; you need a break.” While the plague seems to have passed over our hospital for now, it has left behind a class of family medicine residents who are proud to carry on our specialty’s long tradition of compassionate, empathetic, lifelong care. “We care for all life stages, from cradle to grave,” says every family medicine physician.

My class, for better or for worse, has cared more often for patients in the twilight of their lives, and while it has been hard, I believe it has made us all better doctors. Now, when I hold a newborn in my arms for a well-child check, I am exceptionally grateful – for the opportunities I have been given, for new beginnings amidst so much sadness, and for the great privilege of being a family medicine physician. ■

Dr. Persampiere is a second-year resident in the family medicine residency program at Abington (Pa.) Jefferson Health. You can contact her directly at [email protected] or via [email protected].

[email protected]

In May 15, 1976, Family Practice News published its first “Residents’ Viewpoint,” a monthly column the publication established “in an effort to keep established practitioners as well as residents up to date.”

We are currently republishing an installment of this column as part of our continuing celebration of Family Practice News’s 50th anniversary.

MDedge News

Bruce A. Bagley, MD, wrote the first batch of these columns, when he was chief resident in family medicine at St. Joseph’s Hospital, Syracuse, N.Y. Joseph E. Scherger, MD, was the second writer for Family Practice News’s monthly “Residents’ Viewpoint.” At the time Dr. Scher­ger became a columnist, he was a 26-year-old, 2nd-year family practice resident at the Family Medical Center, University Hospital, University of Washington, Seattle.

Dr. Scherger’s first column was published on Feb. 5, 1977. We are republishing his “Residents’ Viewpoint” from June 15, 1977 (see below) and a new column by Victoria Persampiere, DO, who is currently a 2nd-year resident in the family medicine program at Abington Jefferson Health. (See “My experience as a family medicine resident in 2021” after Dr. Scherger’s column.).

We hope you will enjoy comparing and contrasting the experiences of a resident practicing family medicine today to those of a resident practicing family medicine nearly 4½ decades ago.To learn about Dr. Scherger’s current practice and long career, you can read his profile on the cover of the September 2021 issue of Family Practice News or on MDedge.com/FamilyMedicine in our “Family Practice News 50th Anniversary” section.
 

Art of medicine or deception?

Originally published in Family Practice News on June 15, 1977.

The practice of medicine can be divided into the scientific aspects of diagnosis and treatment and the nonscientific aspects of meeting patients’ needs, the art of medicine.

In medical school I learned the science of medicine. There I diligently studied the basic sciences and gained a thorough understanding of the pathophysiology of disease. In the clinical years I learned to apply this knowledge to a wide variety of interesting patients who came to the academic center.

Yet, when I started my family practice residency, I lacked the ability to care for patients. Though I could take a thorough history, perform a complete physical examination, and diagnose and treat specific illnesses, I had little idea how to satisfy patients by meeting their needs.

The art of medicine is the nonscientific part of a successful doctor-patient interaction. For a doctor-patient interaction to be successful, not only must the illness be appropriately addressed, but both patient and physician must be satisfied.

In the university environment, the art of medicine often gets inadequate attention. Indeed, most academic physicians think that only scientific medicine exists and that patients should be satisfied with a sophisticated approach to their problems. Some patients are satisfied, but many are disgruntled. It is not unusual for a patient, after a $1,000 work-up, to go to a family physician or chiropractor for satisfaction.

I was eager to discover the art of medicine at its finest during my rotation away from the university in a rural community. During these 2 months I looked for the pearls of wisdom that allowed community physicians to be so successful. I found that a very explicit technique was used by some physicians to achieve not only satisfaction but adoration from their patients. Unfortunately, this technique is dishonest.

Early in my community experience I was impressed by how often patients told me a doctor had saved them. I heard such statements as “Dr. X saved my leg,” or “Dr. X saved my life.” I know that it does occur, but not as often as I was hearing it.

Investigating these statements I found such stories as, “One day l twisted my ankle very badly, and it became quite swollen. My doctor told me 1 could lose my leg from this but that he would take x-rays, put my leg in an Ace bandage, and give me crutches. In 3 days I was well. I am so thankful he saved my leg.”

And, “One day I had a temperature of 104. All of my muscles ached, my head hurt, and I had a terrible sore throat and cough. My doctor told me l could die from this, but he gave me a medicine and made me stay home. I was sick for about 2 weeks, but I got better. He saved my life.”

Is the art of medicine the art of deception? This horrifying thought actually came to me after hearing several such stories, but I learned that most of the physicians involved in such stories were not well respected by their colleagues.

I learned many honest techniques for successfully caring for patients. The several family physicians with whom I worked, all clinical instructors associated with my residency, were impeccably honest and taught me to combine compassion and efficiency.

Despite learning many positive techniques and having good role models, I left the community experience somewhat saddened by the lack of integrity that can exist in the profession. I was naive in believing that all the nonscientific aspects of medi­cine that made patients happy must be good.

By experiencing deception, I learned why quackery continues to flourish despite the widespread availability of honest medical care. Most significantly, I learned the importance of a sometimes frustrating humility; my patients with sprained ankles and influenza will not believe I saved their lives.

My experience as a family medicine resident in 2021

I graduated medical school in May 2020, right as COVID was taking over the country, and the specter of the virus has hung over every aspect of my residency education thus far.

I did not get a medical school graduation; I was one of the many thousands of newly graduated students who simply left their 4th-year rotation sites one chilly day in March 2020 and just never went back. My medical school education didn’t end with me walking triumphantly across the stage – a first-generation college student finally achieving the greatest dream in her life. Instead, it ended with a Zoom “graduation” and a cross-country move from Georgia to Pennsylvania amidst the greatest pandemic in recent memory. To say my impostor syndrome was bad would be an understatement.
 

Residency in the COVID-19 era

The joy and the draw to family medicine for me has always been the broad scope of conditions that we see and treat. From day 1, however, much of my residency has been devoted to one very small subset of patients – those with COVID-19. At one point, our hospital was so strained that our family medicine program had to run a second inpatient service alongside our usual five-resident service team just to provide care to everybody. Patients were in the hallways. The ER was packed to the gills. We were sleepless, terrified, unvaccinated, and desperate to help our patients survive a disease that was incompletely understood, with very few tools in our toolbox to combat it.

I distinctly remember sitting in the workroom with a coresident of mine, our faces seemingly permanently lined from wearing N95s all shift, and saying to him, “I worry I will be a bad family medicine physician. I worry I haven’t seen enough, other than COVID.” It was midway through my intern year; the days were short, so I was driving to and from the hospital in chilly darkness. My patients, like many around the country, were doing poorly. Vaccines seemed like a promise too good to be true. Worst of all: Those of us who were interns, who had no triumphant podium moment to end our medical school education, were suffering with an intense sense of impostor syndrome, which was strengthened by every “there is nothing else we can offer your loved one at this time” conversation we had. My apprehension about not having seen a wider breadth of medicine during my training is a sentiment still widely shared by COVID-era residents.

Luckily, my coresident was supportive.

“We’re going to be great family medicine physicians,” he said. “We’re learning the hard stuff – the bread and butter of FM – up-front. You’ll see.”

In some ways, I think he was right. Clinical skills, empathy, humility, and forging strong relationships are at the center of every family medicine physician’s heart; my generation has had to learn these skills early and under pressure. Sometimes, there are no answers. Sometimes, the best thing a family doctor can do for a patient is to hear them, understand them, and hold their hand.
 

‘We watched Cinderella together’

Shortly after that conversation with my coresident, I had a particular case which moved me. This gentleman with intellectual disability and COVID had been declining steadily since his admission to the hospital. He was isolated from everybody he knew and loved, but it did not dampen his spirits. He was cheerful to every person who entered his room, clad in their shrouds of PPE, which more often than not felt more like mourning garb than protective wear. I remember very little about this patient’s clinical picture – the COVID, the superimposed pneumonia, the repeated intubations. What I do remember is he loved the Disney classic Cinderella. I knew this because I developed a very close relationship with his family during the course of his hospitalization. Amidst the torrential onslaught of patients, I made sure to call families every day – not because I wanted to, but because my mentors and attendings and coresidents had all drilled into me from day 1 that we are family medicine, and a large part of our role is to advocate for our patients, and to communicate with their loved ones. So I called. I learned a lot about him; his likes, his dislikes, his close bond with his siblings, and of course his lifelong love for Cinderella. On the last week of my ICU rotation, my patient passed peacefully. His nurse and I were bedside. We held his hand. We told him his family loved him. We watched Cinderella together on an iPad encased in protective plastic.

My next rotation was an outpatient one and it looked more like the “bread and butter” of family medicine. But as I whisked in and out of patient rooms, attending to patients with diabetes, with depression, with pain, I could not stop thinking about my hospitalized patients who my coresidents had assumed care of. Each exam room I entered, I rather morbidly thought “this patient could be next on our hospital service.” Without realizing it, I made more of an effort to get to know each patient holistically. I learned who they were as people. I found myself writing small, medically low-yield details in the chart: “Margaret loves to sing in her church choir;” “Katherine is a self-published author.”

I learned from my attendings. As I sat at the precepting table with them, observing their conversations about patients, their collective decades of experience were apparent.

“I’ve been seeing this patient every few weeks since I was a resident,” said one of my attendings.

“I don’t even see my parents that often,” I thought.

The depth of her relationship with, understanding of, and compassion for this patient struck me deeply. This was why I went into family medicine. My attending knew her patients; they were not faceless unknowns in a hospital gown to her. She would have known to play Cinderella for them in the end.

This is a unique time for trainees. We have been challenged, terrified, overwhelmed, and heartbroken. But at no point have we been isolated. We’ve had the generations of doctors before us to lead the way, to teach us the “hard stuff.” We’ve had senior residents to lean on, who have taken us aside and told us, “I can do the goals-of-care talk today; you need a break.” While the plague seems to have passed over our hospital for now, it has left behind a class of family medicine residents who are proud to carry on our specialty’s long tradition of compassionate, empathetic, lifelong care. “We care for all life stages, from cradle to grave,” says every family medicine physician.

My class, for better or for worse, has cared more often for patients in the twilight of their lives, and while it has been hard, I believe it has made us all better doctors. Now, when I hold a newborn in my arms for a well-child check, I am exceptionally grateful – for the opportunities I have been given, for new beginnings amidst so much sadness, and for the great privilege of being a family medicine physician. ■

Dr. Persampiere is a second-year resident in the family medicine residency program at Abington (Pa.) Jefferson Health. You can contact her directly at [email protected] or via [email protected].

[email protected]

In May 15, 1976, Family Practice News published its first “Residents’ Viewpoint,” a monthly column the publication established “in an effort to keep established practitioners as well as residents up to date.”

We are currently republishing an installment of this column as part of our continuing celebration of Family Practice News’s 50th anniversary.

MDedge News

Bruce A. Bagley, MD, wrote the first batch of these columns, when he was chief resident in family medicine at St. Joseph’s Hospital, Syracuse, N.Y. Joseph E. Scherger, MD, was the second writer for Family Practice News’s monthly “Residents’ Viewpoint.” At the time Dr. Scher­ger became a columnist, he was a 26-year-old, 2nd-year family practice resident at the Family Medical Center, University Hospital, University of Washington, Seattle.

Dr. Scherger’s first column was published on Feb. 5, 1977. We are republishing his “Residents’ Viewpoint” from June 15, 1977 (see below) and a new column by Victoria Persampiere, DO, who is currently a 2nd-year resident in the family medicine program at Abington Jefferson Health. (See “My experience as a family medicine resident in 2021” after Dr. Scherger’s column.).

We hope you will enjoy comparing and contrasting the experiences of a resident practicing family medicine today to those of a resident practicing family medicine nearly 4½ decades ago.To learn about Dr. Scherger’s current practice and long career, you can read his profile on the cover of the September 2021 issue of Family Practice News or on MDedge.com/FamilyMedicine in our “Family Practice News 50th Anniversary” section.
 

Art of medicine or deception?

Originally published in Family Practice News on June 15, 1977.

The practice of medicine can be divided into the scientific aspects of diagnosis and treatment and the nonscientific aspects of meeting patients’ needs, the art of medicine.

In medical school I learned the science of medicine. There I diligently studied the basic sciences and gained a thorough understanding of the pathophysiology of disease. In the clinical years I learned to apply this knowledge to a wide variety of interesting patients who came to the academic center.

Yet, when I started my family practice residency, I lacked the ability to care for patients. Though I could take a thorough history, perform a complete physical examination, and diagnose and treat specific illnesses, I had little idea how to satisfy patients by meeting their needs.

The art of medicine is the nonscientific part of a successful doctor-patient interaction. For a doctor-patient interaction to be successful, not only must the illness be appropriately addressed, but both patient and physician must be satisfied.

In the university environment, the art of medicine often gets inadequate attention. Indeed, most academic physicians think that only scientific medicine exists and that patients should be satisfied with a sophisticated approach to their problems. Some patients are satisfied, but many are disgruntled. It is not unusual for a patient, after a $1,000 work-up, to go to a family physician or chiropractor for satisfaction.

I was eager to discover the art of medicine at its finest during my rotation away from the university in a rural community. During these 2 months I looked for the pearls of wisdom that allowed community physicians to be so successful. I found that a very explicit technique was used by some physicians to achieve not only satisfaction but adoration from their patients. Unfortunately, this technique is dishonest.

Early in my community experience I was impressed by how often patients told me a doctor had saved them. I heard such statements as “Dr. X saved my leg,” or “Dr. X saved my life.” I know that it does occur, but not as often as I was hearing it.

Investigating these statements I found such stories as, “One day l twisted my ankle very badly, and it became quite swollen. My doctor told me 1 could lose my leg from this but that he would take x-rays, put my leg in an Ace bandage, and give me crutches. In 3 days I was well. I am so thankful he saved my leg.”

And, “One day I had a temperature of 104. All of my muscles ached, my head hurt, and I had a terrible sore throat and cough. My doctor told me l could die from this, but he gave me a medicine and made me stay home. I was sick for about 2 weeks, but I got better. He saved my life.”

Is the art of medicine the art of deception? This horrifying thought actually came to me after hearing several such stories, but I learned that most of the physicians involved in such stories were not well respected by their colleagues.

I learned many honest techniques for successfully caring for patients. The several family physicians with whom I worked, all clinical instructors associated with my residency, were impeccably honest and taught me to combine compassion and efficiency.

Despite learning many positive techniques and having good role models, I left the community experience somewhat saddened by the lack of integrity that can exist in the profession. I was naive in believing that all the nonscientific aspects of medi­cine that made patients happy must be good.

By experiencing deception, I learned why quackery continues to flourish despite the widespread availability of honest medical care. Most significantly, I learned the importance of a sometimes frustrating humility; my patients with sprained ankles and influenza will not believe I saved their lives.

My experience as a family medicine resident in 2021

I graduated medical school in May 2020, right as COVID was taking over the country, and the specter of the virus has hung over every aspect of my residency education thus far.

I did not get a medical school graduation; I was one of the many thousands of newly graduated students who simply left their 4th-year rotation sites one chilly day in March 2020 and just never went back. My medical school education didn’t end with me walking triumphantly across the stage – a first-generation college student finally achieving the greatest dream in her life. Instead, it ended with a Zoom “graduation” and a cross-country move from Georgia to Pennsylvania amidst the greatest pandemic in recent memory. To say my impostor syndrome was bad would be an understatement.
 

Residency in the COVID-19 era

The joy and the draw to family medicine for me has always been the broad scope of conditions that we see and treat. From day 1, however, much of my residency has been devoted to one very small subset of patients – those with COVID-19. At one point, our hospital was so strained that our family medicine program had to run a second inpatient service alongside our usual five-resident service team just to provide care to everybody. Patients were in the hallways. The ER was packed to the gills. We were sleepless, terrified, unvaccinated, and desperate to help our patients survive a disease that was incompletely understood, with very few tools in our toolbox to combat it.

I distinctly remember sitting in the workroom with a coresident of mine, our faces seemingly permanently lined from wearing N95s all shift, and saying to him, “I worry I will be a bad family medicine physician. I worry I haven’t seen enough, other than COVID.” It was midway through my intern year; the days were short, so I was driving to and from the hospital in chilly darkness. My patients, like many around the country, were doing poorly. Vaccines seemed like a promise too good to be true. Worst of all: Those of us who were interns, who had no triumphant podium moment to end our medical school education, were suffering with an intense sense of impostor syndrome, which was strengthened by every “there is nothing else we can offer your loved one at this time” conversation we had. My apprehension about not having seen a wider breadth of medicine during my training is a sentiment still widely shared by COVID-era residents.

Luckily, my coresident was supportive.

“We’re going to be great family medicine physicians,” he said. “We’re learning the hard stuff – the bread and butter of FM – up-front. You’ll see.”

In some ways, I think he was right. Clinical skills, empathy, humility, and forging strong relationships are at the center of every family medicine physician’s heart; my generation has had to learn these skills early and under pressure. Sometimes, there are no answers. Sometimes, the best thing a family doctor can do for a patient is to hear them, understand them, and hold their hand.
 

‘We watched Cinderella together’

Shortly after that conversation with my coresident, I had a particular case which moved me. This gentleman with intellectual disability and COVID had been declining steadily since his admission to the hospital. He was isolated from everybody he knew and loved, but it did not dampen his spirits. He was cheerful to every person who entered his room, clad in their shrouds of PPE, which more often than not felt more like mourning garb than protective wear. I remember very little about this patient’s clinical picture – the COVID, the superimposed pneumonia, the repeated intubations. What I do remember is he loved the Disney classic Cinderella. I knew this because I developed a very close relationship with his family during the course of his hospitalization. Amidst the torrential onslaught of patients, I made sure to call families every day – not because I wanted to, but because my mentors and attendings and coresidents had all drilled into me from day 1 that we are family medicine, and a large part of our role is to advocate for our patients, and to communicate with their loved ones. So I called. I learned a lot about him; his likes, his dislikes, his close bond with his siblings, and of course his lifelong love for Cinderella. On the last week of my ICU rotation, my patient passed peacefully. His nurse and I were bedside. We held his hand. We told him his family loved him. We watched Cinderella together on an iPad encased in protective plastic.

My next rotation was an outpatient one and it looked more like the “bread and butter” of family medicine. But as I whisked in and out of patient rooms, attending to patients with diabetes, with depression, with pain, I could not stop thinking about my hospitalized patients who my coresidents had assumed care of. Each exam room I entered, I rather morbidly thought “this patient could be next on our hospital service.” Without realizing it, I made more of an effort to get to know each patient holistically. I learned who they were as people. I found myself writing small, medically low-yield details in the chart: “Margaret loves to sing in her church choir;” “Katherine is a self-published author.”

I learned from my attendings. As I sat at the precepting table with them, observing their conversations about patients, their collective decades of experience were apparent.

“I’ve been seeing this patient every few weeks since I was a resident,” said one of my attendings.

“I don’t even see my parents that often,” I thought.

The depth of her relationship with, understanding of, and compassion for this patient struck me deeply. This was why I went into family medicine. My attending knew her patients; they were not faceless unknowns in a hospital gown to her. She would have known to play Cinderella for them in the end.

This is a unique time for trainees. We have been challenged, terrified, overwhelmed, and heartbroken. But at no point have we been isolated. We’ve had the generations of doctors before us to lead the way, to teach us the “hard stuff.” We’ve had senior residents to lean on, who have taken us aside and told us, “I can do the goals-of-care talk today; you need a break.” While the plague seems to have passed over our hospital for now, it has left behind a class of family medicine residents who are proud to carry on our specialty’s long tradition of compassionate, empathetic, lifelong care. “We care for all life stages, from cradle to grave,” says every family medicine physician.

My class, for better or for worse, has cared more often for patients in the twilight of their lives, and while it has been hard, I believe it has made us all better doctors. Now, when I hold a newborn in my arms for a well-child check, I am exceptionally grateful – for the opportunities I have been given, for new beginnings amidst so much sadness, and for the great privilege of being a family medicine physician. ■

Dr. Persampiere is a second-year resident in the family medicine residency program at Abington (Pa.) Jefferson Health. You can contact her directly at [email protected] or via [email protected].

[email protected]

Over the past two decades, there has been a significant increase in the number of adults in the United States with small fiber neuropathy (SFN), but in many cases, no cause can be determined. The exact reason for the increase in isolated SFN “remains unclear,” said Christopher J. Klein, MD, of the Mayo Clinic in Rochester, Minn. However, “we noted during the study period the population has had increased BMI, which appears to be a risk factor for this disorder, with many (50%) developing either glucose impairment or frank diabetes during the study period even if not present at first small fiber neuropathy presentation, also with associated higher triglyceride levels,” he explained.

The study was published online October 27 in Neurology.
 

Significant upward trend

Investigators reviewed the records of all 94 adults diagnosed with pure SFN (no large fiber involvement) between 1998 and 2017 in Olmsted and adjacent counties in Minnesota – and compared them with 282 adults of similar age and gender who did not have neuropathy.

The incidence of SFN over the entire study period was 1.3 per 100,000 per year and the prevalence was 13.3 per 100,000.

There was a “significant upward trend” in SFN incidence over the study period that could not be attributed to the availability of intraepidermal nerve fiber density testing, the authors reported.

The median age of onset of SFN was 54 years and two-thirds were women (67%).

Diabetes, obesity, and hypertriglyceridemia were significantly more common in patients with SFN compared with matched controls. These metabolic risk factors are also associated with peripheral neuropathy regardless of fiber type.

Autonomic symptoms were common and generally mild, affecting 85% of patients with SFN, and included male erectile dysfunction, constipation, light-headedness and palpitations, urinary symptoms, diarrhea, dry eyes and mouth, sweat abnormalities, and gastroparesis.

Insomnia and use of opioid pain medication were more common in those with SFN than matched controls.

More than one-third (36%) of patients with SFN developed large fiber neuropathy an average of 5.3 years after developing SFN.

During an average follow-up of 6.1 years, adults with SFN were significantly more likely to suffer myocardial infarction (46% vs. 27%; odds ratio, 2.0; 95% CI, 1.8-4.9), congestive heart failure (27% vs. 12%; OR, 2.6; 95% CI, 1.4-4.8), peripheral vascular disease (22% vs. 6%; OR, 4.0; 95% CI, 1.9-8.1), stroke (24% vs. 10%; OR, 2.8; 95% CI, 1.5-5.3), diabetes (51% vs. 22%; OR, 4.6; 95% CI, 2.8-7.6) and rheumatologic disease (30% vs. 7%; OR, 5.3; 95% CI, 2.8-10.4).

For 70% of patients, no cause for SFN could be determined. Diabetes (15%) was the most common cause identified. Other less common causes included Sjögren syndrome, lupus, amyloidosis, and Fabry disease.

“It is important to quantitatively diagnose patients with SFN as many non-neurological musculoskeletal causes can mimic the disorder,” said Dr. Klein.

“If rates of progression are rapid, sinister causes such as out-of-control diabetes, hereditary [transthyretin] TTR amyloidosis, and Fabry disease can be responsible. For other patients, rates of progression are slow and generally do not lead to significant neurologic impairments,” he added.

“However,” he said, “internal medicine follow-up is important for all as this disorder associates with development with higher risk of cardiovascular disease, including commonly heart attacks.”

Of note, although mean age at death was not significantly different in patients with SFN than controls (70 vs. 73 years), there was a significantly higher number of deaths in patients with SFN (n = 18; 19%) than in matched controls (n = 35; 12%) from the time of symptom onset, the researchers reported.
 

Important research

This “important” study sheds light on the comorbidities and longitudinal consequences of SFN, wrote Brian Callaghan, MD, with the University of Michigan, Ann Arbor, and J. Robinson Singleton, MD, with the University of Utah, Salt Lake City, in an accompanying editorial in Neurology.

The study demonstrates clearly that SFN has “metabolic risk factors similar to those seen for sensory predominant peripheral neuropathies affecting a broader range of fiber types. As a result, therapies that address metabolic risk factors are likely to help prevent or treat both conditions,” they wrote.

Dr. Callaghan and Dr. Singleton added that a key strength of the study is the detailed follow-up that examines SFN progression over time. “The authors found that patients with SFN do not report high disability and that progression tends to be slow. Therefore, patients with SFN can be counseled that progression and disability are likely to be modest in most cases. However, when patients do progress quickly, uncommon etiologies should be sought,” the editorialists wrote.

The study was supported by the Mayo Clinic Foundation, Mayo Clinic Center for Individualized Medicine, and Mayo Clinic Center of MS and Autoimmune Neurology. Dr. Klein has received teaching honorarium from Ackea pharmaceuticals for lectures on hereditary transthyretin amyloidosis and Fabry disease, consulted for Pfizer regarding tafamidis (all compensation for consulting activities is paid directly to Mayo Clinic), and participated in the clinical trials for inotersen and patisiran but received no personal compensation for his participation. Dr. Callaghan consults for DynaMed, performs medical legal consultations, including consultations for the Vaccine Injury Compensation Program, and receives research support from the American Academy of Neurology. Dr. Singleton has consulted for Regenacy.

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

Over the past two decades, there has been a significant increase in the number of adults in the United States with small fiber neuropathy (SFN), but in many cases, no cause can be determined. The exact reason for the increase in isolated SFN “remains unclear,” said Christopher J. Klein, MD, of the Mayo Clinic in Rochester, Minn. However, “we noted during the study period the population has had increased BMI, which appears to be a risk factor for this disorder, with many (50%) developing either glucose impairment or frank diabetes during the study period even if not present at first small fiber neuropathy presentation, also with associated higher triglyceride levels,” he explained.

The study was published online October 27 in Neurology.
 

Significant upward trend

Investigators reviewed the records of all 94 adults diagnosed with pure SFN (no large fiber involvement) between 1998 and 2017 in Olmsted and adjacent counties in Minnesota – and compared them with 282 adults of similar age and gender who did not have neuropathy.

The incidence of SFN over the entire study period was 1.3 per 100,000 per year and the prevalence was 13.3 per 100,000.

There was a “significant upward trend” in SFN incidence over the study period that could not be attributed to the availability of intraepidermal nerve fiber density testing, the authors reported.

The median age of onset of SFN was 54 years and two-thirds were women (67%).

Diabetes, obesity, and hypertriglyceridemia were significantly more common in patients with SFN compared with matched controls. These metabolic risk factors are also associated with peripheral neuropathy regardless of fiber type.

Autonomic symptoms were common and generally mild, affecting 85% of patients with SFN, and included male erectile dysfunction, constipation, light-headedness and palpitations, urinary symptoms, diarrhea, dry eyes and mouth, sweat abnormalities, and gastroparesis.

Insomnia and use of opioid pain medication were more common in those with SFN than matched controls.

More than one-third (36%) of patients with SFN developed large fiber neuropathy an average of 5.3 years after developing SFN.

During an average follow-up of 6.1 years, adults with SFN were significantly more likely to suffer myocardial infarction (46% vs. 27%; odds ratio, 2.0; 95% CI, 1.8-4.9), congestive heart failure (27% vs. 12%; OR, 2.6; 95% CI, 1.4-4.8), peripheral vascular disease (22% vs. 6%; OR, 4.0; 95% CI, 1.9-8.1), stroke (24% vs. 10%; OR, 2.8; 95% CI, 1.5-5.3), diabetes (51% vs. 22%; OR, 4.6; 95% CI, 2.8-7.6) and rheumatologic disease (30% vs. 7%; OR, 5.3; 95% CI, 2.8-10.4).

For 70% of patients, no cause for SFN could be determined. Diabetes (15%) was the most common cause identified. Other less common causes included Sjögren syndrome, lupus, amyloidosis, and Fabry disease.

“It is important to quantitatively diagnose patients with SFN as many non-neurological musculoskeletal causes can mimic the disorder,” said Dr. Klein.

“If rates of progression are rapid, sinister causes such as out-of-control diabetes, hereditary [transthyretin] TTR amyloidosis, and Fabry disease can be responsible. For other patients, rates of progression are slow and generally do not lead to significant neurologic impairments,” he added.

“However,” he said, “internal medicine follow-up is important for all as this disorder associates with development with higher risk of cardiovascular disease, including commonly heart attacks.”

Of note, although mean age at death was not significantly different in patients with SFN than controls (70 vs. 73 years), there was a significantly higher number of deaths in patients with SFN (n = 18; 19%) than in matched controls (n = 35; 12%) from the time of symptom onset, the researchers reported.
 

Important research

This “important” study sheds light on the comorbidities and longitudinal consequences of SFN, wrote Brian Callaghan, MD, with the University of Michigan, Ann Arbor, and J. Robinson Singleton, MD, with the University of Utah, Salt Lake City, in an accompanying editorial in Neurology.

The study demonstrates clearly that SFN has “metabolic risk factors similar to those seen for sensory predominant peripheral neuropathies affecting a broader range of fiber types. As a result, therapies that address metabolic risk factors are likely to help prevent or treat both conditions,” they wrote.

Dr. Callaghan and Dr. Singleton added that a key strength of the study is the detailed follow-up that examines SFN progression over time. “The authors found that patients with SFN do not report high disability and that progression tends to be slow. Therefore, patients with SFN can be counseled that progression and disability are likely to be modest in most cases. However, when patients do progress quickly, uncommon etiologies should be sought,” the editorialists wrote.

The study was supported by the Mayo Clinic Foundation, Mayo Clinic Center for Individualized Medicine, and Mayo Clinic Center of MS and Autoimmune Neurology. Dr. Klein has received teaching honorarium from Ackea pharmaceuticals for lectures on hereditary transthyretin amyloidosis and Fabry disease, consulted for Pfizer regarding tafamidis (all compensation for consulting activities is paid directly to Mayo Clinic), and participated in the clinical trials for inotersen and patisiran but received no personal compensation for his participation. Dr. Callaghan consults for DynaMed, performs medical legal consultations, including consultations for the Vaccine Injury Compensation Program, and receives research support from the American Academy of Neurology. Dr. Singleton has consulted for Regenacy.

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

Over the past two decades, there has been a significant increase in the number of adults in the United States with small fiber neuropathy (SFN), but in many cases, no cause can be determined. The exact reason for the increase in isolated SFN “remains unclear,” said Christopher J. Klein, MD, of the Mayo Clinic in Rochester, Minn. However, “we noted during the study period the population has had increased BMI, which appears to be a risk factor for this disorder, with many (50%) developing either glucose impairment or frank diabetes during the study period even if not present at first small fiber neuropathy presentation, also with associated higher triglyceride levels,” he explained.

The study was published online October 27 in Neurology.
 

Significant upward trend

Investigators reviewed the records of all 94 adults diagnosed with pure SFN (no large fiber involvement) between 1998 and 2017 in Olmsted and adjacent counties in Minnesota – and compared them with 282 adults of similar age and gender who did not have neuropathy.

The incidence of SFN over the entire study period was 1.3 per 100,000 per year and the prevalence was 13.3 per 100,000.

There was a “significant upward trend” in SFN incidence over the study period that could not be attributed to the availability of intraepidermal nerve fiber density testing, the authors reported.

The median age of onset of SFN was 54 years and two-thirds were women (67%).

Diabetes, obesity, and hypertriglyceridemia were significantly more common in patients with SFN compared with matched controls. These metabolic risk factors are also associated with peripheral neuropathy regardless of fiber type.

Autonomic symptoms were common and generally mild, affecting 85% of patients with SFN, and included male erectile dysfunction, constipation, light-headedness and palpitations, urinary symptoms, diarrhea, dry eyes and mouth, sweat abnormalities, and gastroparesis.

Insomnia and use of opioid pain medication were more common in those with SFN than matched controls.

More than one-third (36%) of patients with SFN developed large fiber neuropathy an average of 5.3 years after developing SFN.

During an average follow-up of 6.1 years, adults with SFN were significantly more likely to suffer myocardial infarction (46% vs. 27%; odds ratio, 2.0; 95% CI, 1.8-4.9), congestive heart failure (27% vs. 12%; OR, 2.6; 95% CI, 1.4-4.8), peripheral vascular disease (22% vs. 6%; OR, 4.0; 95% CI, 1.9-8.1), stroke (24% vs. 10%; OR, 2.8; 95% CI, 1.5-5.3), diabetes (51% vs. 22%; OR, 4.6; 95% CI, 2.8-7.6) and rheumatologic disease (30% vs. 7%; OR, 5.3; 95% CI, 2.8-10.4).

For 70% of patients, no cause for SFN could be determined. Diabetes (15%) was the most common cause identified. Other less common causes included Sjögren syndrome, lupus, amyloidosis, and Fabry disease.

“It is important to quantitatively diagnose patients with SFN as many non-neurological musculoskeletal causes can mimic the disorder,” said Dr. Klein.

“If rates of progression are rapid, sinister causes such as out-of-control diabetes, hereditary [transthyretin] TTR amyloidosis, and Fabry disease can be responsible. For other patients, rates of progression are slow and generally do not lead to significant neurologic impairments,” he added.

“However,” he said, “internal medicine follow-up is important for all as this disorder associates with development with higher risk of cardiovascular disease, including commonly heart attacks.”

Of note, although mean age at death was not significantly different in patients with SFN than controls (70 vs. 73 years), there was a significantly higher number of deaths in patients with SFN (n = 18; 19%) than in matched controls (n = 35; 12%) from the time of symptom onset, the researchers reported.
 

Important research

This “important” study sheds light on the comorbidities and longitudinal consequences of SFN, wrote Brian Callaghan, MD, with the University of Michigan, Ann Arbor, and J. Robinson Singleton, MD, with the University of Utah, Salt Lake City, in an accompanying editorial in Neurology.

The study demonstrates clearly that SFN has “metabolic risk factors similar to those seen for sensory predominant peripheral neuropathies affecting a broader range of fiber types. As a result, therapies that address metabolic risk factors are likely to help prevent or treat both conditions,” they wrote.

Dr. Callaghan and Dr. Singleton added that a key strength of the study is the detailed follow-up that examines SFN progression over time. “The authors found that patients with SFN do not report high disability and that progression tends to be slow. Therefore, patients with SFN can be counseled that progression and disability are likely to be modest in most cases. However, when patients do progress quickly, uncommon etiologies should be sought,” the editorialists wrote.

The study was supported by the Mayo Clinic Foundation, Mayo Clinic Center for Individualized Medicine, and Mayo Clinic Center of MS and Autoimmune Neurology. Dr. Klein has received teaching honorarium from Ackea pharmaceuticals for lectures on hereditary transthyretin amyloidosis and Fabry disease, consulted for Pfizer regarding tafamidis (all compensation for consulting activities is paid directly to Mayo Clinic), and participated in the clinical trials for inotersen and patisiran but received no personal compensation for his participation. Dr. Callaghan consults for DynaMed, performs medical legal consultations, including consultations for the Vaccine Injury Compensation Program, and receives research support from the American Academy of Neurology. Dr. Singleton has consulted for Regenacy.

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

New data from England show the success of the national program for vaccinating girls against human papillomavirus (HPV) to prevent cervical cancer.

Among young women who received the HPV vaccine when they were 12-13 years old (before their sexual debut), cervical cancer rates are 87% lower than among previous nonvaccinated generations.

“It’s been incredible to see the impact of HPV vaccination, and now we can prove it prevented hundreds of women from developing cancer in England,” senior author Peter Sasieni, MD, King’s College London, said in a statement. “To see the real-life impact of the vaccine has been truly rewarding.”

“This study provides the first direct evidence of the impact of the UK HPV vaccination campaign on cervical cancer incidence, showing a large reduction in cervical cancer rates in vaccinated cohorts,” Kate Soldan, MD, U.K. Health Security Agency, London, commented in a statement.

Vanessa Saliba, MD, a consultant epidemiologist for the U.K. Health Security Agency, agreed, saying that “these remarkable findings confirm that the HPV vaccine saves lives by dramatically reducing cervical cancer rates among women.

“This reminds us that vaccines are one of the most important tools we have to help us live longer, healthier lives,” she added.

The study was published online Nov. 3, 2021, in The Lancet.

Approached for comment on the new study, Maurice Markman, MD, president, Medicine and Science Cancer Treatment Centers of America, noted that the results of the English study are very similar to those of a Swedish study of the quadrivalent vaccine alone.

“You can put any superlatives you want in here, but these are stunningly positive results,” Dr. Markman said in an interview. He said that, as an oncologist who has been treating cervical cancer for 40 years, particularly patients with advanced cervical cancer, “I can tell you this is one of the most devastating diseases to women, and the ability to eliminate this cancer with something as simple as a vaccine is the goal of cancer therapy, and it’s been remarkably successful.

“I can only emphasize the critical importance of all parents to see that their children who are eligible for the vaccine receive it. This is a cancer prevention strategy that is unbelievably, remarkably effective and safe,” Dr. Markman added.
 

National vaccination program

The national HPV vaccination program in England began in 2008. Initially, the bivalent Cervarix vaccine against HPV 16 and 18 was used. HPV 16 and 18 are responsible for 70% to 80% of all cervical cancers in England, the researchers note in their article.

In 2012, the program switched to the quadrivalent HPV vaccine (Gardasil), which is effective against two additional HPV types, HPV 6 and 11. Those strains cause genital warts.

The prevention program originally recommended a three-dose regimen in which both HPV vaccines were used. Currently, two doses are given to girls younger than 15 years. In addition, a single dose of the HPV vaccine provides good protection against persistent infection. The efficacy rate of a single dose is similar to that of three doses, the authors comment.
 

Population-based registry

The new data come from a population-based cancer registry that shows the incidence of cervical cancer and noninvasive cervical carcinoma (CIN3) in England between January 2006 and June 2019.

The study included seven cohorts of women who were aged 20-64 years at the end of 2019. Three of these cohorts composed the vaccinated population.

The team reports that overall, from January 2006 to June 2019, there were 27,946 cases of cervical cancer and 318,058 cases of CIN3.

In the three vaccinated cohorts, there were around 450 fewer cases of cervical cancer and 17,200 fewer cases of CIN3 than would be expected in a nonvaccinated population.

The three vaccinated cohorts had been eligible to receive Cervarix when they were aged 12-13 years. A catch-up scheme aimed at 14- to 16-year-olds and 16- to 18-year-olds. Most of these persons were vaccinated through a school vaccination program.

The team analyzed the data for each of these cohorts.

Among the cohort eligible for vaccination at 12-13 years of age, 89% received at least one dose of the HPV vaccine; 85% received three shots and were fully vaccinated. Among these persons, the rate of cervical cancer was 87% lower than expected in a nonvaccinated population, and the rate of CIN3 was 97% lower than expected.

For the cohort that was eligible to be vaccinated between the ages of 14 and 16 years, the corresponding reductions were 62% for cervical cancer and 75% for CIN3.

For the cohort eligible for vaccination between the ages of 16 and 18 years (of whom 60% had received at least one dose and 45% were fully vaccinated), the corresponding reduction were 34% for cervical cancer and 39% for CIN3.

The authors acknowledge some limitations with the study, principally that cervical cancer is rare in young women, and these vaccinated populations are still young. The youngest would have been vaccinated at age 12 in 2008 and so would be only 23 years old in 2019, when the follow-up in this current study ended. The authors emphasize that because the vaccinated populations are still young, it is too early to assess the full impact of HPV vaccination on cervical cancer rates.
 

Editorial commentary

“The relative reductions in cervical cancer, expected as a result of the HPV vaccination program, support the anticipated vaccine effectiveness,” commented two authors of an accompanying editorial, Maggie Cruickshank, MD, University of Aberdeen (Scotland), and Mihaela Grigore, MD, University of Medicine and Pharmacy, Lasi, Romania.

“The scale of the HPV vaccination effect reported by this study should also stimulate vaccination programs in low-income and middle-income countries where the problem of cervical cancer is a far greater public health issue than in those with well established systems of vaccination and screening,” they comment.

“The most important issue, besides the availability of the vaccine ... is the education of the population to accept the vaccination because a high rate of immunization is a key element of success,” they emphasize. “Even in a wealthy country, such as England with free access to HPV immunization, uptake has not reached the 90% vaccination target of girls aged 15 years set by WHO [World Health Organization].”

The authors and editorialists disclosed no relevant financial relationships. Dr. Markman is a regular contributor to Medscape Oncology. He has received income of $250 or more from Genentech, AstraZeneca, Celgene, Clovis, and Amgen.

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

New data from England show the success of the national program for vaccinating girls against human papillomavirus (HPV) to prevent cervical cancer.

Among young women who received the HPV vaccine when they were 12-13 years old (before their sexual debut), cervical cancer rates are 87% lower than among previous nonvaccinated generations.

“It’s been incredible to see the impact of HPV vaccination, and now we can prove it prevented hundreds of women from developing cancer in England,” senior author Peter Sasieni, MD, King’s College London, said in a statement. “To see the real-life impact of the vaccine has been truly rewarding.”

“This study provides the first direct evidence of the impact of the UK HPV vaccination campaign on cervical cancer incidence, showing a large reduction in cervical cancer rates in vaccinated cohorts,” Kate Soldan, MD, U.K. Health Security Agency, London, commented in a statement.

Vanessa Saliba, MD, a consultant epidemiologist for the U.K. Health Security Agency, agreed, saying that “these remarkable findings confirm that the HPV vaccine saves lives by dramatically reducing cervical cancer rates among women.

“This reminds us that vaccines are one of the most important tools we have to help us live longer, healthier lives,” she added.

The study was published online Nov. 3, 2021, in The Lancet.

Approached for comment on the new study, Maurice Markman, MD, president, Medicine and Science Cancer Treatment Centers of America, noted that the results of the English study are very similar to those of a Swedish study of the quadrivalent vaccine alone.

“You can put any superlatives you want in here, but these are stunningly positive results,” Dr. Markman said in an interview. He said that, as an oncologist who has been treating cervical cancer for 40 years, particularly patients with advanced cervical cancer, “I can tell you this is one of the most devastating diseases to women, and the ability to eliminate this cancer with something as simple as a vaccine is the goal of cancer therapy, and it’s been remarkably successful.

“I can only emphasize the critical importance of all parents to see that their children who are eligible for the vaccine receive it. This is a cancer prevention strategy that is unbelievably, remarkably effective and safe,” Dr. Markman added.
 

National vaccination program

The national HPV vaccination program in England began in 2008. Initially, the bivalent Cervarix vaccine against HPV 16 and 18 was used. HPV 16 and 18 are responsible for 70% to 80% of all cervical cancers in England, the researchers note in their article.

In 2012, the program switched to the quadrivalent HPV vaccine (Gardasil), which is effective against two additional HPV types, HPV 6 and 11. Those strains cause genital warts.

The prevention program originally recommended a three-dose regimen in which both HPV vaccines were used. Currently, two doses are given to girls younger than 15 years. In addition, a single dose of the HPV vaccine provides good protection against persistent infection. The efficacy rate of a single dose is similar to that of three doses, the authors comment.
 

Population-based registry

The new data come from a population-based cancer registry that shows the incidence of cervical cancer and noninvasive cervical carcinoma (CIN3) in England between January 2006 and June 2019.

The study included seven cohorts of women who were aged 20-64 years at the end of 2019. Three of these cohorts composed the vaccinated population.

The team reports that overall, from January 2006 to June 2019, there were 27,946 cases of cervical cancer and 318,058 cases of CIN3.

In the three vaccinated cohorts, there were around 450 fewer cases of cervical cancer and 17,200 fewer cases of CIN3 than would be expected in a nonvaccinated population.

The three vaccinated cohorts had been eligible to receive Cervarix when they were aged 12-13 years. A catch-up scheme aimed at 14- to 16-year-olds and 16- to 18-year-olds. Most of these persons were vaccinated through a school vaccination program.

The team analyzed the data for each of these cohorts.

Among the cohort eligible for vaccination at 12-13 years of age, 89% received at least one dose of the HPV vaccine; 85% received three shots and were fully vaccinated. Among these persons, the rate of cervical cancer was 87% lower than expected in a nonvaccinated population, and the rate of CIN3 was 97% lower than expected.

For the cohort that was eligible to be vaccinated between the ages of 14 and 16 years, the corresponding reductions were 62% for cervical cancer and 75% for CIN3.

For the cohort eligible for vaccination between the ages of 16 and 18 years (of whom 60% had received at least one dose and 45% were fully vaccinated), the corresponding reduction were 34% for cervical cancer and 39% for CIN3.

The authors acknowledge some limitations with the study, principally that cervical cancer is rare in young women, and these vaccinated populations are still young. The youngest would have been vaccinated at age 12 in 2008 and so would be only 23 years old in 2019, when the follow-up in this current study ended. The authors emphasize that because the vaccinated populations are still young, it is too early to assess the full impact of HPV vaccination on cervical cancer rates.
 

Editorial commentary

“The relative reductions in cervical cancer, expected as a result of the HPV vaccination program, support the anticipated vaccine effectiveness,” commented two authors of an accompanying editorial, Maggie Cruickshank, MD, University of Aberdeen (Scotland), and Mihaela Grigore, MD, University of Medicine and Pharmacy, Lasi, Romania.

“The scale of the HPV vaccination effect reported by this study should also stimulate vaccination programs in low-income and middle-income countries where the problem of cervical cancer is a far greater public health issue than in those with well established systems of vaccination and screening,” they comment.

“The most important issue, besides the availability of the vaccine ... is the education of the population to accept the vaccination because a high rate of immunization is a key element of success,” they emphasize. “Even in a wealthy country, such as England with free access to HPV immunization, uptake has not reached the 90% vaccination target of girls aged 15 years set by WHO [World Health Organization].”

The authors and editorialists disclosed no relevant financial relationships. Dr. Markman is a regular contributor to Medscape Oncology. He has received income of $250 or more from Genentech, AstraZeneca, Celgene, Clovis, and Amgen.

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

New data from England show the success of the national program for vaccinating girls against human papillomavirus (HPV) to prevent cervical cancer.

Among young women who received the HPV vaccine when they were 12-13 years old (before their sexual debut), cervical cancer rates are 87% lower than among previous nonvaccinated generations.

“It’s been incredible to see the impact of HPV vaccination, and now we can prove it prevented hundreds of women from developing cancer in England,” senior author Peter Sasieni, MD, King’s College London, said in a statement. “To see the real-life impact of the vaccine has been truly rewarding.”

“This study provides the first direct evidence of the impact of the UK HPV vaccination campaign on cervical cancer incidence, showing a large reduction in cervical cancer rates in vaccinated cohorts,” Kate Soldan, MD, U.K. Health Security Agency, London, commented in a statement.

Vanessa Saliba, MD, a consultant epidemiologist for the U.K. Health Security Agency, agreed, saying that “these remarkable findings confirm that the HPV vaccine saves lives by dramatically reducing cervical cancer rates among women.

“This reminds us that vaccines are one of the most important tools we have to help us live longer, healthier lives,” she added.

The study was published online Nov. 3, 2021, in The Lancet.

Approached for comment on the new study, Maurice Markman, MD, president, Medicine and Science Cancer Treatment Centers of America, noted that the results of the English study are very similar to those of a Swedish study of the quadrivalent vaccine alone.

“You can put any superlatives you want in here, but these are stunningly positive results,” Dr. Markman said in an interview. He said that, as an oncologist who has been treating cervical cancer for 40 years, particularly patients with advanced cervical cancer, “I can tell you this is one of the most devastating diseases to women, and the ability to eliminate this cancer with something as simple as a vaccine is the goal of cancer therapy, and it’s been remarkably successful.

“I can only emphasize the critical importance of all parents to see that their children who are eligible for the vaccine receive it. This is a cancer prevention strategy that is unbelievably, remarkably effective and safe,” Dr. Markman added.
 

National vaccination program

The national HPV vaccination program in England began in 2008. Initially, the bivalent Cervarix vaccine against HPV 16 and 18 was used. HPV 16 and 18 are responsible for 70% to 80% of all cervical cancers in England, the researchers note in their article.

In 2012, the program switched to the quadrivalent HPV vaccine (Gardasil), which is effective against two additional HPV types, HPV 6 and 11. Those strains cause genital warts.

The prevention program originally recommended a three-dose regimen in which both HPV vaccines were used. Currently, two doses are given to girls younger than 15 years. In addition, a single dose of the HPV vaccine provides good protection against persistent infection. The efficacy rate of a single dose is similar to that of three doses, the authors comment.
 

Population-based registry

The new data come from a population-based cancer registry that shows the incidence of cervical cancer and noninvasive cervical carcinoma (CIN3) in England between January 2006 and June 2019.

The study included seven cohorts of women who were aged 20-64 years at the end of 2019. Three of these cohorts composed the vaccinated population.

The team reports that overall, from January 2006 to June 2019, there were 27,946 cases of cervical cancer and 318,058 cases of CIN3.

In the three vaccinated cohorts, there were around 450 fewer cases of cervical cancer and 17,200 fewer cases of CIN3 than would be expected in a nonvaccinated population.

The three vaccinated cohorts had been eligible to receive Cervarix when they were aged 12-13 years. A catch-up scheme aimed at 14- to 16-year-olds and 16- to 18-year-olds. Most of these persons were vaccinated through a school vaccination program.

The team analyzed the data for each of these cohorts.

Among the cohort eligible for vaccination at 12-13 years of age, 89% received at least one dose of the HPV vaccine; 85% received three shots and were fully vaccinated. Among these persons, the rate of cervical cancer was 87% lower than expected in a nonvaccinated population, and the rate of CIN3 was 97% lower than expected.

For the cohort that was eligible to be vaccinated between the ages of 14 and 16 years, the corresponding reductions were 62% for cervical cancer and 75% for CIN3.

For the cohort eligible for vaccination between the ages of 16 and 18 years (of whom 60% had received at least one dose and 45% were fully vaccinated), the corresponding reduction were 34% for cervical cancer and 39% for CIN3.

The authors acknowledge some limitations with the study, principally that cervical cancer is rare in young women, and these vaccinated populations are still young. The youngest would have been vaccinated at age 12 in 2008 and so would be only 23 years old in 2019, when the follow-up in this current study ended. The authors emphasize that because the vaccinated populations are still young, it is too early to assess the full impact of HPV vaccination on cervical cancer rates.
 

Editorial commentary

“The relative reductions in cervical cancer, expected as a result of the HPV vaccination program, support the anticipated vaccine effectiveness,” commented two authors of an accompanying editorial, Maggie Cruickshank, MD, University of Aberdeen (Scotland), and Mihaela Grigore, MD, University of Medicine and Pharmacy, Lasi, Romania.

“The scale of the HPV vaccination effect reported by this study should also stimulate vaccination programs in low-income and middle-income countries where the problem of cervical cancer is a far greater public health issue than in those with well established systems of vaccination and screening,” they comment.

“The most important issue, besides the availability of the vaccine ... is the education of the population to accept the vaccination because a high rate of immunization is a key element of success,” they emphasize. “Even in a wealthy country, such as England with free access to HPV immunization, uptake has not reached the 90% vaccination target of girls aged 15 years set by WHO [World Health Organization].”

The authors and editorialists disclosed no relevant financial relationships. Dr. Markman is a regular contributor to Medscape Oncology. He has received income of $250 or more from Genentech, AstraZeneca, Celgene, Clovis, and Amgen.

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

A new type of blood glucose monitoring system now available in the United States allows users to test with a single button-push instead of finger-sticking or inserting test strips into a meter.

The POGO Automatic Blood Glucose Monitoring System (Intuity Medical) has been cleared by the U.S. Food and Drug Administration for people with diabetes aged 13 years and older.

It contains a 10-test cartridge, and once loaded and the monitor is turned on, the user only has to press their finger on a button to activate POGO Automatic, which then does all the work of lancing and blood collection, followed by a 4-second countdown and a result. Users only need to carry the monitor and not separate lancets or strips.

An app called Patterns is available for iOS and Android that allows the results from the device to automatically sync via Bluetooth. It visually presents glucose trends and enables data sharing with health care providers.  

“We know that people with diabetes are more effective at managing their diabetes when they regularly check their blood glucose and use the information to take action,” said Daniel Einhorn, MD, medical director of Scripps Whittier Diabetes Institute, president of Diabetes and Endocrine Associates, and chairperson of the Intuity Medical Scientific Advisory Board, in a company statement.

“My patients and millions of others with diabetes have struggled for decades with the burden of checking their glucose because it’s complicated, there’s a lot to carry around, and it’s intrusive,” he added. “What they’ve needed is a simple, quick, and truly discreet way to check their blood glucose, so they’ll actually do it.”
 

How does POGO compare with CGM?

Continuous glucose monitors (CGMs), such as the Abbott FreeStyle Libre, Dexcom G6, and Eversense implant, are increasingly employed by people with type 1 diabetes, and some with type 2 diabetes, to keep a close eye on their blood glucose levels.

Asked how the POGO device compares with CGM systems, Intuity Chief Commercial Officer Dean Zikria said: “While [CGM] is certainly an important option for a subset of people with diabetes, CGM is a very different technology, requiring a user to wear a sensor and transmitter on their body.”

“Patients also need to obtain a prescription in order to use CGM.”

“Conversely, POGO Automatic is available with or without a prescription. POGO Automatic also gives people who do not want to wear a device on their body a new choice other than traditional blood glucose monitoring,” Mr. Zikria added.

The POGO system is available at U.S. pharmacies, including CVS and Walgreens, and can also be purchased online.

The device costs $68 from the company website and a pack of 5 cartridges (each containing 10 tests, with an aim of people performing 1-2 tests per day) costs a further $32 as a one-off, or $32 per month as a subscription.  

The product is also eligible for purchase using Flexible Spending Accounts and Health Savings Accounts.

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

A new type of blood glucose monitoring system now available in the United States allows users to test with a single button-push instead of finger-sticking or inserting test strips into a meter.

The POGO Automatic Blood Glucose Monitoring System (Intuity Medical) has been cleared by the U.S. Food and Drug Administration for people with diabetes aged 13 years and older.

It contains a 10-test cartridge, and once loaded and the monitor is turned on, the user only has to press their finger on a button to activate POGO Automatic, which then does all the work of lancing and blood collection, followed by a 4-second countdown and a result. Users only need to carry the monitor and not separate lancets or strips.

An app called Patterns is available for iOS and Android that allows the results from the device to automatically sync via Bluetooth. It visually presents glucose trends and enables data sharing with health care providers.  

“We know that people with diabetes are more effective at managing their diabetes when they regularly check their blood glucose and use the information to take action,” said Daniel Einhorn, MD, medical director of Scripps Whittier Diabetes Institute, president of Diabetes and Endocrine Associates, and chairperson of the Intuity Medical Scientific Advisory Board, in a company statement.

“My patients and millions of others with diabetes have struggled for decades with the burden of checking their glucose because it’s complicated, there’s a lot to carry around, and it’s intrusive,” he added. “What they’ve needed is a simple, quick, and truly discreet way to check their blood glucose, so they’ll actually do it.”
 

How does POGO compare with CGM?

Continuous glucose monitors (CGMs), such as the Abbott FreeStyle Libre, Dexcom G6, and Eversense implant, are increasingly employed by people with type 1 diabetes, and some with type 2 diabetes, to keep a close eye on their blood glucose levels.

Asked how the POGO device compares with CGM systems, Intuity Chief Commercial Officer Dean Zikria said: “While [CGM] is certainly an important option for a subset of people with diabetes, CGM is a very different technology, requiring a user to wear a sensor and transmitter on their body.”

“Patients also need to obtain a prescription in order to use CGM.”

“Conversely, POGO Automatic is available with or without a prescription. POGO Automatic also gives people who do not want to wear a device on their body a new choice other than traditional blood glucose monitoring,” Mr. Zikria added.

The POGO system is available at U.S. pharmacies, including CVS and Walgreens, and can also be purchased online.

The device costs $68 from the company website and a pack of 5 cartridges (each containing 10 tests, with an aim of people performing 1-2 tests per day) costs a further $32 as a one-off, or $32 per month as a subscription.  

The product is also eligible for purchase using Flexible Spending Accounts and Health Savings Accounts.

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

A new type of blood glucose monitoring system now available in the United States allows users to test with a single button-push instead of finger-sticking or inserting test strips into a meter.

The POGO Automatic Blood Glucose Monitoring System (Intuity Medical) has been cleared by the U.S. Food and Drug Administration for people with diabetes aged 13 years and older.

It contains a 10-test cartridge, and once loaded and the monitor is turned on, the user only has to press their finger on a button to activate POGO Automatic, which then does all the work of lancing and blood collection, followed by a 4-second countdown and a result. Users only need to carry the monitor and not separate lancets or strips.

An app called Patterns is available for iOS and Android that allows the results from the device to automatically sync via Bluetooth. It visually presents glucose trends and enables data sharing with health care providers.  

“We know that people with diabetes are more effective at managing their diabetes when they regularly check their blood glucose and use the information to take action,” said Daniel Einhorn, MD, medical director of Scripps Whittier Diabetes Institute, president of Diabetes and Endocrine Associates, and chairperson of the Intuity Medical Scientific Advisory Board, in a company statement.

“My patients and millions of others with diabetes have struggled for decades with the burden of checking their glucose because it’s complicated, there’s a lot to carry around, and it’s intrusive,” he added. “What they’ve needed is a simple, quick, and truly discreet way to check their blood glucose, so they’ll actually do it.”
 

How does POGO compare with CGM?

Continuous glucose monitors (CGMs), such as the Abbott FreeStyle Libre, Dexcom G6, and Eversense implant, are increasingly employed by people with type 1 diabetes, and some with type 2 diabetes, to keep a close eye on their blood glucose levels.

Asked how the POGO device compares with CGM systems, Intuity Chief Commercial Officer Dean Zikria said: “While [CGM] is certainly an important option for a subset of people with diabetes, CGM is a very different technology, requiring a user to wear a sensor and transmitter on their body.”

“Patients also need to obtain a prescription in order to use CGM.”

“Conversely, POGO Automatic is available with or without a prescription. POGO Automatic also gives people who do not want to wear a device on their body a new choice other than traditional blood glucose monitoring,” Mr. Zikria added.

The POGO system is available at U.S. pharmacies, including CVS and Walgreens, and can also be purchased online.

The device costs $68 from the company website and a pack of 5 cartridges (each containing 10 tests, with an aim of people performing 1-2 tests per day) costs a further $32 as a one-off, or $32 per month as a subscription.  

The product is also eligible for purchase using Flexible Spending Accounts and Health Savings Accounts.

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

Alopecia areata (AA) has been linked to a significantly increased risk for dementia, new research shows.

After controlling for an array of potential confounders, investigators found a threefold higher risk of developing any form of dementia and a fourfold higher risk of developing Alzheimer’s disease (AD) in those with AA versus the controls.

“AA shares a similar inflammatory signature with dementia and has great psychological impacts that lead to poor social engagement,” lead author Cheng-Yuan Li, MD, MSc, of the department of dermatology, Taipei (Taiwan) Veterans General Hospital.

“Poor social engagement and shared inflammatory cytokines might both be important links between AA and dementia,” said Dr. Li, who is also affiliated with the School of Medicine and the Institute of Brain Science at National Yang Ming Chiao Tung University, Taipei.

The study was published online Oct. 26, 2021, in the Journal of Clinical Psychiatry (doi: 10.4088/JCP.21m13931).
 

Significant psychological impact

Patients with AA often experience anxiety and depression, possibly caused by the negative emotional and psychological impact of the hair loss and partial or even complete baldness associated with the disease, the authors noted.

However, AA is also associated with an array of other atopic and autoimmune diseases, including psoriasis and systemic lupus erythematosus (SLE).

Epidemiologic research has suggested a link between dementia and autoimmune diseases such as psoriasis and SLE, with some evidence suggesting that autoimmune and inflammatory mechanisms may “play a role” in the development of AD.

Dementia in general and AD in particular, “have been shown to include an inflammatory component” that may share some of the same mediators seen in AA (eg, IL-1 beta, IL-6, and tumor necrosis factor–alpha).

Moreover, “the great negative psychosocial impact of AA might result in poor social engagement, a typical risk factor for dementia,” said Dr. Li. The investigators sought to investigate whether patients with AA actually do have a higher dementia risk than individuals without AA.

The researchers used data from the Taiwan National Health Insurance Research Database, comparing 2,534 patients with AA against 25,340 controls matched for age, sex, residence, income, dementia-related comorbidities, systemic steroid use, and annual outpatient visits. Participants were enrolled between 1998 and 2011 and followed to the end of 2013.

The mean age of the cohort was 53.9 years, and a little over half (57.6%) were female. The most common comorbidity was hypertension (32.3%), followed by dyslipidemia (27%) and diabetes (15.4%).
 

Dual intervention

After adjusting for potential confounders, those with AA were more likely to develop dementia, AD, and unspecified dementia, compared with controls. They also had a numerically higher risk for vascular dementia, compared with controls, but it was not statistically significant.

When participants were stratified by age, investigators found a significant association between AA and higher risk for any dementia as well as unspecified dementia in individuals of all ages and an increased risk for AD in patients with dementia age at onset of 65 years and older.

The mean age of dementia diagnosis was considerably younger in patients with AA versus controls (73.4 vs. 78.9 years, P = .002). The risk for any dementia and unspecified dementia was higher in patients of both sexes, but the risk for AD was higher only in male patients.

Sensitivity analyses that excluded the first year or first 3 years of observation yielded similar and consistent findings.

“Intervention targeting poor social engagement and inflammatory cytokines may be beneficial to AA-associated dementia,” said Dr. Li.

“Physicians should be more aware of this possible association, help reduce disease discrimination among the public, and encourage more social engagement for AA patients,” he said.

“Further studies are needed to elucidate the underlying pathophysiology between AA and dementia risk,” he added.
 

No cause and effect

Commenting on the study, Heather M. Snyder, PhD, vice president of medical and scientific affairs, Alzheimer’s Association, said, “We continue to learn about and better understand factors that may increase or decrease a person’s risk of dementia.”

“While we know the immune system plays a role in Alzheimer’s and other dementia, we are still investigating links between, and impact of, autoimmune diseases – like alopecia areata, rheumatoid arthritis, and others – on our overall health and our brains, [which] may eventually give us important information on risk reduction strategies as well,” said Dr. Snyder, who was not involved in the research.

She cautioned that although the study did show a correlation between AA and dementia risk, this does not equate to a demonstration of cause and effect.

At present, “the message for clinicians is that when a patient comes to your office with complaints about their memory, they should, No. 1, be taken seriously; and, No. 2, receive a thorough evaluation that takes into account the many factors that may lead to cognitive decline,” Dr. Snyder said.

The study was supported by a grant from Taipei Veterans General Hospital and the Ministry of Science and Technology, Taiwan. Dr. Li, coauthors, and Dr. Snyder disclosed no relevant financial relationships.

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

Alopecia areata (AA) has been linked to a significantly increased risk for dementia, new research shows.

After controlling for an array of potential confounders, investigators found a threefold higher risk of developing any form of dementia and a fourfold higher risk of developing Alzheimer’s disease (AD) in those with AA versus the controls.

“AA shares a similar inflammatory signature with dementia and has great psychological impacts that lead to poor social engagement,” lead author Cheng-Yuan Li, MD, MSc, of the department of dermatology, Taipei (Taiwan) Veterans General Hospital.

“Poor social engagement and shared inflammatory cytokines might both be important links between AA and dementia,” said Dr. Li, who is also affiliated with the School of Medicine and the Institute of Brain Science at National Yang Ming Chiao Tung University, Taipei.

The study was published online Oct. 26, 2021, in the Journal of Clinical Psychiatry (doi: 10.4088/JCP.21m13931).
 

Significant psychological impact

Patients with AA often experience anxiety and depression, possibly caused by the negative emotional and psychological impact of the hair loss and partial or even complete baldness associated with the disease, the authors noted.

However, AA is also associated with an array of other atopic and autoimmune diseases, including psoriasis and systemic lupus erythematosus (SLE).

Epidemiologic research has suggested a link between dementia and autoimmune diseases such as psoriasis and SLE, with some evidence suggesting that autoimmune and inflammatory mechanisms may “play a role” in the development of AD.

Dementia in general and AD in particular, “have been shown to include an inflammatory component” that may share some of the same mediators seen in AA (eg, IL-1 beta, IL-6, and tumor necrosis factor–alpha).

Moreover, “the great negative psychosocial impact of AA might result in poor social engagement, a typical risk factor for dementia,” said Dr. Li. The investigators sought to investigate whether patients with AA actually do have a higher dementia risk than individuals without AA.

The researchers used data from the Taiwan National Health Insurance Research Database, comparing 2,534 patients with AA against 25,340 controls matched for age, sex, residence, income, dementia-related comorbidities, systemic steroid use, and annual outpatient visits. Participants were enrolled between 1998 and 2011 and followed to the end of 2013.

The mean age of the cohort was 53.9 years, and a little over half (57.6%) were female. The most common comorbidity was hypertension (32.3%), followed by dyslipidemia (27%) and diabetes (15.4%).
 

Dual intervention

After adjusting for potential confounders, those with AA were more likely to develop dementia, AD, and unspecified dementia, compared with controls. They also had a numerically higher risk for vascular dementia, compared with controls, but it was not statistically significant.

When participants were stratified by age, investigators found a significant association between AA and higher risk for any dementia as well as unspecified dementia in individuals of all ages and an increased risk for AD in patients with dementia age at onset of 65 years and older.

The mean age of dementia diagnosis was considerably younger in patients with AA versus controls (73.4 vs. 78.9 years, P = .002). The risk for any dementia and unspecified dementia was higher in patients of both sexes, but the risk for AD was higher only in male patients.

Sensitivity analyses that excluded the first year or first 3 years of observation yielded similar and consistent findings.

“Intervention targeting poor social engagement and inflammatory cytokines may be beneficial to AA-associated dementia,” said Dr. Li.

“Physicians should be more aware of this possible association, help reduce disease discrimination among the public, and encourage more social engagement for AA patients,” he said.

“Further studies are needed to elucidate the underlying pathophysiology between AA and dementia risk,” he added.
 

No cause and effect

Commenting on the study, Heather M. Snyder, PhD, vice president of medical and scientific affairs, Alzheimer’s Association, said, “We continue to learn about and better understand factors that may increase or decrease a person’s risk of dementia.”

“While we know the immune system plays a role in Alzheimer’s and other dementia, we are still investigating links between, and impact of, autoimmune diseases – like alopecia areata, rheumatoid arthritis, and others – on our overall health and our brains, [which] may eventually give us important information on risk reduction strategies as well,” said Dr. Snyder, who was not involved in the research.

She cautioned that although the study did show a correlation between AA and dementia risk, this does not equate to a demonstration of cause and effect.

At present, “the message for clinicians is that when a patient comes to your office with complaints about their memory, they should, No. 1, be taken seriously; and, No. 2, receive a thorough evaluation that takes into account the many factors that may lead to cognitive decline,” Dr. Snyder said.

The study was supported by a grant from Taipei Veterans General Hospital and the Ministry of Science and Technology, Taiwan. Dr. Li, coauthors, and Dr. Snyder disclosed no relevant financial relationships.

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

Alopecia areata (AA) has been linked to a significantly increased risk for dementia, new research shows.

After controlling for an array of potential confounders, investigators found a threefold higher risk of developing any form of dementia and a fourfold higher risk of developing Alzheimer’s disease (AD) in those with AA versus the controls.

“AA shares a similar inflammatory signature with dementia and has great psychological impacts that lead to poor social engagement,” lead author Cheng-Yuan Li, MD, MSc, of the department of dermatology, Taipei (Taiwan) Veterans General Hospital.

“Poor social engagement and shared inflammatory cytokines might both be important links between AA and dementia,” said Dr. Li, who is also affiliated with the School of Medicine and the Institute of Brain Science at National Yang Ming Chiao Tung University, Taipei.

The study was published online Oct. 26, 2021, in the Journal of Clinical Psychiatry (doi: 10.4088/JCP.21m13931).
 

Significant psychological impact

Patients with AA often experience anxiety and depression, possibly caused by the negative emotional and psychological impact of the hair loss and partial or even complete baldness associated with the disease, the authors noted.

However, AA is also associated with an array of other atopic and autoimmune diseases, including psoriasis and systemic lupus erythematosus (SLE).

Epidemiologic research has suggested a link between dementia and autoimmune diseases such as psoriasis and SLE, with some evidence suggesting that autoimmune and inflammatory mechanisms may “play a role” in the development of AD.

Dementia in general and AD in particular, “have been shown to include an inflammatory component” that may share some of the same mediators seen in AA (eg, IL-1 beta, IL-6, and tumor necrosis factor–alpha).

Moreover, “the great negative psychosocial impact of AA might result in poor social engagement, a typical risk factor for dementia,” said Dr. Li. The investigators sought to investigate whether patients with AA actually do have a higher dementia risk than individuals without AA.

The researchers used data from the Taiwan National Health Insurance Research Database, comparing 2,534 patients with AA against 25,340 controls matched for age, sex, residence, income, dementia-related comorbidities, systemic steroid use, and annual outpatient visits. Participants were enrolled between 1998 and 2011 and followed to the end of 2013.

The mean age of the cohort was 53.9 years, and a little over half (57.6%) were female. The most common comorbidity was hypertension (32.3%), followed by dyslipidemia (27%) and diabetes (15.4%).
 

Dual intervention

After adjusting for potential confounders, those with AA were more likely to develop dementia, AD, and unspecified dementia, compared with controls. They also had a numerically higher risk for vascular dementia, compared with controls, but it was not statistically significant.

When participants were stratified by age, investigators found a significant association between AA and higher risk for any dementia as well as unspecified dementia in individuals of all ages and an increased risk for AD in patients with dementia age at onset of 65 years and older.

The mean age of dementia diagnosis was considerably younger in patients with AA versus controls (73.4 vs. 78.9 years, P = .002). The risk for any dementia and unspecified dementia was higher in patients of both sexes, but the risk for AD was higher only in male patients.

Sensitivity analyses that excluded the first year or first 3 years of observation yielded similar and consistent findings.

“Intervention targeting poor social engagement and inflammatory cytokines may be beneficial to AA-associated dementia,” said Dr. Li.

“Physicians should be more aware of this possible association, help reduce disease discrimination among the public, and encourage more social engagement for AA patients,” he said.

“Further studies are needed to elucidate the underlying pathophysiology between AA and dementia risk,” he added.
 

No cause and effect

Commenting on the study, Heather M. Snyder, PhD, vice president of medical and scientific affairs, Alzheimer’s Association, said, “We continue to learn about and better understand factors that may increase or decrease a person’s risk of dementia.”

“While we know the immune system plays a role in Alzheimer’s and other dementia, we are still investigating links between, and impact of, autoimmune diseases – like alopecia areata, rheumatoid arthritis, and others – on our overall health and our brains, [which] may eventually give us important information on risk reduction strategies as well,” said Dr. Snyder, who was not involved in the research.

She cautioned that although the study did show a correlation between AA and dementia risk, this does not equate to a demonstration of cause and effect.

At present, “the message for clinicians is that when a patient comes to your office with complaints about their memory, they should, No. 1, be taken seriously; and, No. 2, receive a thorough evaluation that takes into account the many factors that may lead to cognitive decline,” Dr. Snyder said.

The study was supported by a grant from Taipei Veterans General Hospital and the Ministry of Science and Technology, Taiwan. Dr. Li, coauthors, and Dr. Snyder disclosed no relevant financial relationships.

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

The authors of a study purportedly showing that ivermectin could treat patients with SARS-CoV-2 have retracted their paper after acknowledging that their data were garbled.

The paper, “Effects of a Single Dose of Ivermectin on Viral and Clinical Outcomes in Asymptomatic SARS-CoV-2 Infected Subjects: A Pilot Clinical Trial in Lebanon,” appeared in the journal Viruses in May. According to the abstract: “A randomized controlled trial was conducted in 100 asymptomatic Lebanese subjects that have tested positive for SARS-CoV2. Fifty patients received standard preventive treatment, mainly supplements, and the experimental group received a single dose (according to body weight) of ivermectin, in addition to the same supplements the control group received.”

Results results results … and: “Ivermectin appears to be efficacious in providing clinical benefits in a randomized treatment of asymptomatic SARS-CoV-2-positive subjects, effectively resulting in fewer symptoms, lower viral load and reduced hospital admissions. However, larger-scale trials are warranted for this conclusion to be further cemented.”

However, in early October, the BBC reported — in a larger piece about the concerns about ivermectin-Covid-19 research — that the study “was found to have blocks of details of 11 patients that had been copied and pasted repeatedly – suggesting many of the trial’s apparent patients didn’t really exist.”

The study’s authors told the BBC that the ‘original set of data was rigged, sabotaged or mistakenly entered in the final file’ and that they have submitted a retraction to the scientific journal which published it.

That’s not quite what the retraction notice states: “The journal retracts the article, Effects of a Single Dose of Ivermectin on Viral and Clinical Outcomes in Asymptomatic SARS-CoV-2 Infected Subjects: A Pilot Clinical Trial in Lebanon [ 1 ], cited above. Following publication, the authors contacted the editorial office regarding an error between files used for the statistical analysis. Adhering to our complaints procedure, an investigation was conducted that confirmed the error reported by the authors.

This retraction was approved by the Editor in Chief of the journal. The authors agreed to this retraction.”

Ali Samaha, of Lebanese University in Beirut, and the lead author of the study, told us: “It was brought to our attention that we have used wrong file for our paper. We informed immediately the journal and we have run investigations. After revising the raw data we realised that a file that was used to train a research assistant was sent by mistake for analysis. Re-analysing the original data , the conclusions of the paper remained valid. For our transparency we asked for retraction.”

About that BBC report? Samaha said: “The BBC article was generated before the report of independent reviewers who confirmed an innocent mistake by using wrong file.”

Samaha added that he and his colleagues are now considering whether to resubmit the paper.

The article has been cited four times, according to Clarivate Analytics’ Web of Science — including in this meta-analysis published in June in the American Journal of Therapeutics , which concluded that: “Moderate-certainty evidence finds that large reductions in COVID-19 deaths are possible using ivermectin. Using ivermectin early in the clinical course may reduce numbers progressing to severe disease. The apparent safety and low cost suggest that ivermectin is likely to have a significant impact on the SARS-CoV-2 pandemic globally.”

That article was a social media darling, receiving more than 45,000 tweets and pickups in 90 news outlets, according to Altmetrics, which ranks it No. 7 among all papers published at that time.

A version of this article first appeared on Retraction Watch.

The authors of a study purportedly showing that ivermectin could treat patients with SARS-CoV-2 have retracted their paper after acknowledging that their data were garbled.

The paper, “Effects of a Single Dose of Ivermectin on Viral and Clinical Outcomes in Asymptomatic SARS-CoV-2 Infected Subjects: A Pilot Clinical Trial in Lebanon,” appeared in the journal Viruses in May. According to the abstract: “A randomized controlled trial was conducted in 100 asymptomatic Lebanese subjects that have tested positive for SARS-CoV2. Fifty patients received standard preventive treatment, mainly supplements, and the experimental group received a single dose (according to body weight) of ivermectin, in addition to the same supplements the control group received.”

Results results results … and: “Ivermectin appears to be efficacious in providing clinical benefits in a randomized treatment of asymptomatic SARS-CoV-2-positive subjects, effectively resulting in fewer symptoms, lower viral load and reduced hospital admissions. However, larger-scale trials are warranted for this conclusion to be further cemented.”

However, in early October, the BBC reported — in a larger piece about the concerns about ivermectin-Covid-19 research — that the study “was found to have blocks of details of 11 patients that had been copied and pasted repeatedly – suggesting many of the trial’s apparent patients didn’t really exist.”

The study’s authors told the BBC that the ‘original set of data was rigged, sabotaged or mistakenly entered in the final file’ and that they have submitted a retraction to the scientific journal which published it.

That’s not quite what the retraction notice states: “The journal retracts the article, Effects of a Single Dose of Ivermectin on Viral and Clinical Outcomes in Asymptomatic SARS-CoV-2 Infected Subjects: A Pilot Clinical Trial in Lebanon [ 1 ], cited above. Following publication, the authors contacted the editorial office regarding an error between files used for the statistical analysis. Adhering to our complaints procedure, an investigation was conducted that confirmed the error reported by the authors.

This retraction was approved by the Editor in Chief of the journal. The authors agreed to this retraction.”

Ali Samaha, of Lebanese University in Beirut, and the lead author of the study, told us: “It was brought to our attention that we have used wrong file for our paper. We informed immediately the journal and we have run investigations. After revising the raw data we realised that a file that was used to train a research assistant was sent by mistake for analysis. Re-analysing the original data , the conclusions of the paper remained valid. For our transparency we asked for retraction.”

About that BBC report? Samaha said: “The BBC article was generated before the report of independent reviewers who confirmed an innocent mistake by using wrong file.”

Samaha added that he and his colleagues are now considering whether to resubmit the paper.

The article has been cited four times, according to Clarivate Analytics’ Web of Science — including in this meta-analysis published in June in the American Journal of Therapeutics , which concluded that: “Moderate-certainty evidence finds that large reductions in COVID-19 deaths are possible using ivermectin. Using ivermectin early in the clinical course may reduce numbers progressing to severe disease. The apparent safety and low cost suggest that ivermectin is likely to have a significant impact on the SARS-CoV-2 pandemic globally.”

That article was a social media darling, receiving more than 45,000 tweets and pickups in 90 news outlets, according to Altmetrics, which ranks it No. 7 among all papers published at that time.

A version of this article first appeared on Retraction Watch.

The authors of a study purportedly showing that ivermectin could treat patients with SARS-CoV-2 have retracted their paper after acknowledging that their data were garbled.

The paper, “Effects of a Single Dose of Ivermectin on Viral and Clinical Outcomes in Asymptomatic SARS-CoV-2 Infected Subjects: A Pilot Clinical Trial in Lebanon,” appeared in the journal Viruses in May. According to the abstract: “A randomized controlled trial was conducted in 100 asymptomatic Lebanese subjects that have tested positive for SARS-CoV2. Fifty patients received standard preventive treatment, mainly supplements, and the experimental group received a single dose (according to body weight) of ivermectin, in addition to the same supplements the control group received.”

Results results results … and: “Ivermectin appears to be efficacious in providing clinical benefits in a randomized treatment of asymptomatic SARS-CoV-2-positive subjects, effectively resulting in fewer symptoms, lower viral load and reduced hospital admissions. However, larger-scale trials are warranted for this conclusion to be further cemented.”

However, in early October, the BBC reported — in a larger piece about the concerns about ivermectin-Covid-19 research — that the study “was found to have blocks of details of 11 patients that had been copied and pasted repeatedly – suggesting many of the trial’s apparent patients didn’t really exist.”

The study’s authors told the BBC that the ‘original set of data was rigged, sabotaged or mistakenly entered in the final file’ and that they have submitted a retraction to the scientific journal which published it.

That’s not quite what the retraction notice states: “The journal retracts the article, Effects of a Single Dose of Ivermectin on Viral and Clinical Outcomes in Asymptomatic SARS-CoV-2 Infected Subjects: A Pilot Clinical Trial in Lebanon [ 1 ], cited above. Following publication, the authors contacted the editorial office regarding an error between files used for the statistical analysis. Adhering to our complaints procedure, an investigation was conducted that confirmed the error reported by the authors.

This retraction was approved by the Editor in Chief of the journal. The authors agreed to this retraction.”

Ali Samaha, of Lebanese University in Beirut, and the lead author of the study, told us: “It was brought to our attention that we have used wrong file for our paper. We informed immediately the journal and we have run investigations. After revising the raw data we realised that a file that was used to train a research assistant was sent by mistake for analysis. Re-analysing the original data , the conclusions of the paper remained valid. For our transparency we asked for retraction.”

About that BBC report? Samaha said: “The BBC article was generated before the report of independent reviewers who confirmed an innocent mistake by using wrong file.”

Samaha added that he and his colleagues are now considering whether to resubmit the paper.

The article has been cited four times, according to Clarivate Analytics’ Web of Science — including in this meta-analysis published in June in the American Journal of Therapeutics , which concluded that: “Moderate-certainty evidence finds that large reductions in COVID-19 deaths are possible using ivermectin. Using ivermectin early in the clinical course may reduce numbers progressing to severe disease. The apparent safety and low cost suggest that ivermectin is likely to have a significant impact on the SARS-CoV-2 pandemic globally.”

That article was a social media darling, receiving more than 45,000 tweets and pickups in 90 news outlets, according to Altmetrics, which ranks it No. 7 among all papers published at that time.

A version of this article first appeared on Retraction Watch.

Pediatric dermatology is a relatively young subspecialty. The Society for Pediatric Dermatology (SPD) was established in 1975, followed by the creation of the journal Pediatric Dermatology in 1982 and the American Academy of Pediatrics Section on Dermatology in 1986.¹ In 2000, the Accreditation Council for Graduate Medical Education (ACGME) officially recognized pediatric dermatology as a unique subspecialty of the American Board of Dermatology (ABD). During that time, informal fellowship experiences emerged, and formal 1-year training programs approved by the ABD evolved by 2006. A subspecialty certification examination was created and has been administered every other year since 2004.¹ Data provided by the SPD indicate that approximately 431 US dermatologists have passed the ABD’s pediatric dermatology board certification examination thus far (unpublished data, September 2021).

In 1986, the first systematic evaluation of the US pediatric dermatology workforce revealed a total of 57 practicing pediatric dermatologists and concluded that job opportunities appeared to be limited at that time.² Since then, the demand for pediatric dermatology services has continued to grow steadily, and the number of board-certified pediatric dermatologists practicing in the United States has increased to at least 317 per data from a 2020 survey.³ However, given that there are more than 11,000 board-certified dermatologists in the United States, there continues to be a severe shortage of pediatric dermatologists.¹

Increased Demand for Pediatric Dermatologists

Approximately 10% to 30% of almost 200 million annual outpatient pediatric primary care visits involve a skin concern. Although many of these problems can be handled by primary care physicians, more than 80% of pediatricians report having difficulty accessing dermatology services for their patients.⁴ In surveys of pediatricians, pediatric dermatology has the third highest referral rate but has consistently ranked third among the specialties deemed most difficult to access.^5-7 In addition, it is not uncommon for the wait time to see a pediatric dermatologist to be 6 weeks or longer.^5,8

Recent population data estimate that there are 73 million children living in the United States.⁹ If there are roughly 317 practicing board-certified pediatric dermatologists, that translates into approximately 4.3 pediatric dermatologists per million children. This number is far smaller than the 4 general dermatologists per 100,000 individuals recommended by Glazer et al¹⁰ in 2017. To meet this suggested ratio goal, the workforce of pediatric dermatologists would have to increase to 2920. In addition to this severe workforce shortage, there is an additional problem with geographic maldistribution of pediatric dermatologists. More than 98% of pediatric dermatologists practice in metropolitan areas. At least 8 states and 95% of counties have no pediatric dermatologist, and there are no pediatric dermatologists practicing in rural counties.⁹ This disparity has considerable implications for barriers to care and lack of access for children living in underserved areas. Suggestions for attracting pediatric dermatologists to practice in these areas have included loan forgiveness programs as well as remote mentorship programs to provide professional support.^8,9

Training in Pediatrics

There currently are 38 ABD-approved pediatric dermatology fellowship training programs in the United States. Beginning in 2009, pediatric dermatology fellowship programs have participated in the SF Match program. Data provided by the SPD show that, since 2012, up to 27 programs have participated in the annual Match, offering a total number of positions ranging from 27 to 38; however, only 11 to 21 positions have been filled each year, leaving a large number of post-Match vacancies (unpublished data, September 2021).

Surveys have explored the reasons behind this lack of interest in pediatric dermatology training among dermatology residents. Factors that have been mentioned include lack of exposure and mentorship in medical school and residency, the financial hardship of an additional year of fellowship training, and historically lower salaries for pediatric dermatologists compared to general dermatologists.^3,6

A 2004 survey revealed that more than 75% of dermatology department chairs believed it was important to have a pediatric dermatologist on the faculty; however, at that time only 48% of dermatology programs reported having at least 1 full-time pediatric dermatology faculty member.¹¹ By 2008, a follow-up survey showed an increase to 70% of dermatology training programs reporting at least 1 full-time pediatric dermatologist; however, 43% of departments still had at least 1 open position, and 76% of those programs shared that they had been searching for more than 1 year.² Currently, the Accreditation Data System of the ACGME shows a total of 144 accredited US dermatology training programs. Of those, 117 programs have 1 or more board-certified pediatric dermatology faculty member, and 27 programs still have none (unpublished data, September 2021).

A shortage of pediatric dermatologists in training programs contributes to the lack of exposure and mentorship for medical students and residents during a critical time in professional development. Studies show that up to 91% of pediatric dermatologists decided to pursue training in pediatric dermatology during medical school, pediatrics residency, or dermatology residency. In one survey, 84% of respondents (N=109) cited early mentorship as the most important factor in their decision to pursue pediatric dermatology.⁶

A lack of pediatric dermatologists also results in suboptimal dermatology training for residents who care for children in primary care specialties, including pediatrics, combined internal medicine and pediatrics, and family practice. Multiple surveys have shown that many pediatricians feel they received inadequate training in dermatology during residency. Up to 38% have cited a need for more pediatric dermatology education (N=755).^5,6 In addition, studies show a wide disparity in diagnostic accuracy between dermatologists and pediatricians, with one concluding that more than one-third of referrals to pediatric dermatologists were initially misdiagnosed and/or incorrectly treated.^5,7

Recruitment Efforts for Pediatric Dermatologists

There are multiple strategies for recruiting trainees into the pediatric dermatology workforce. First, given the importance of early exposure to the field and role models/mentors, pediatric dermatologists must take advantage of every opportunity to interact with medical students and residents. They can share their genuine enthusiasm and love for the specialty while encouraging and supporting those who show interest. They also should seek opportunities for teaching, lecturing, and advising at every level of training. In addition, they can enhance visibility of the specialty by participating in career forums and/or assuming leadership roles within their departments or institutions.¹² Another suggestion is for dermatology training programs to consider giving priority to qualified applicants who express sincere interest in pursuing pediatric dermatology training (including those who have already completed pediatrics residency). Although a 2008 survey revealed that 39% of dermatology residency programs (N=80) favored giving priority to applicants demonstrating interest in pediatric dermatology, others were against it, citing issues such as lack of funding for additional residency training, lack of pediatric dermatology mentors within the program, and an overall mistrust of applicants’ sincerity.²

Final Thoughts

The subspecialty of pediatric dermatology has experienced remarkable growth over the last 40 years; however, demand for pediatric dermatology services has continued to outpace supply, resulting in a persistent and notable workforce shortage. Overall, the current supply of pediatric dermatologists can neither meet the clinical demands of the pediatric population nor fulfill academic needs of existing training programs. We must continue to develop novel strategies for increasing the pool of students and residents who are interested in pursuing careers in pediatric dermatology. Ultimately, we also must create incentives and develop tactics to address the geographic maldistribution that exists within the specialty.

Pediatric dermatology is a relatively young subspecialty. The Society for Pediatric Dermatology (SPD) was established in 1975, followed by the creation of the journal Pediatric Dermatology in 1982 and the American Academy of Pediatrics Section on Dermatology in 1986.¹ In 2000, the Accreditation Council for Graduate Medical Education (ACGME) officially recognized pediatric dermatology as a unique subspecialty of the American Board of Dermatology (ABD). During that time, informal fellowship experiences emerged, and formal 1-year training programs approved by the ABD evolved by 2006. A subspecialty certification examination was created and has been administered every other year since 2004.¹ Data provided by the SPD indicate that approximately 431 US dermatologists have passed the ABD’s pediatric dermatology board certification examination thus far (unpublished data, September 2021).

In 1986, the first systematic evaluation of the US pediatric dermatology workforce revealed a total of 57 practicing pediatric dermatologists and concluded that job opportunities appeared to be limited at that time.² Since then, the demand for pediatric dermatology services has continued to grow steadily, and the number of board-certified pediatric dermatologists practicing in the United States has increased to at least 317 per data from a 2020 survey.³ However, given that there are more than 11,000 board-certified dermatologists in the United States, there continues to be a severe shortage of pediatric dermatologists.¹

Increased Demand for Pediatric Dermatologists

Approximately 10% to 30% of almost 200 million annual outpatient pediatric primary care visits involve a skin concern. Although many of these problems can be handled by primary care physicians, more than 80% of pediatricians report having difficulty accessing dermatology services for their patients.⁴ In surveys of pediatricians, pediatric dermatology has the third highest referral rate but has consistently ranked third among the specialties deemed most difficult to access.^5-7 In addition, it is not uncommon for the wait time to see a pediatric dermatologist to be 6 weeks or longer.^5,8

Recent population data estimate that there are 73 million children living in the United States.⁹ If there are roughly 317 practicing board-certified pediatric dermatologists, that translates into approximately 4.3 pediatric dermatologists per million children. This number is far smaller than the 4 general dermatologists per 100,000 individuals recommended by Glazer et al¹⁰ in 2017. To meet this suggested ratio goal, the workforce of pediatric dermatologists would have to increase to 2920. In addition to this severe workforce shortage, there is an additional problem with geographic maldistribution of pediatric dermatologists. More than 98% of pediatric dermatologists practice in metropolitan areas. At least 8 states and 95% of counties have no pediatric dermatologist, and there are no pediatric dermatologists practicing in rural counties.⁹ This disparity has considerable implications for barriers to care and lack of access for children living in underserved areas. Suggestions for attracting pediatric dermatologists to practice in these areas have included loan forgiveness programs as well as remote mentorship programs to provide professional support.^8,9

Training in Pediatrics

There currently are 38 ABD-approved pediatric dermatology fellowship training programs in the United States. Beginning in 2009, pediatric dermatology fellowship programs have participated in the SF Match program. Data provided by the SPD show that, since 2012, up to 27 programs have participated in the annual Match, offering a total number of positions ranging from 27 to 38; however, only 11 to 21 positions have been filled each year, leaving a large number of post-Match vacancies (unpublished data, September 2021).

Surveys have explored the reasons behind this lack of interest in pediatric dermatology training among dermatology residents. Factors that have been mentioned include lack of exposure and mentorship in medical school and residency, the financial hardship of an additional year of fellowship training, and historically lower salaries for pediatric dermatologists compared to general dermatologists.^3,6

A 2004 survey revealed that more than 75% of dermatology department chairs believed it was important to have a pediatric dermatologist on the faculty; however, at that time only 48% of dermatology programs reported having at least 1 full-time pediatric dermatology faculty member.¹¹ By 2008, a follow-up survey showed an increase to 70% of dermatology training programs reporting at least 1 full-time pediatric dermatologist; however, 43% of departments still had at least 1 open position, and 76% of those programs shared that they had been searching for more than 1 year.² Currently, the Accreditation Data System of the ACGME shows a total of 144 accredited US dermatology training programs. Of those, 117 programs have 1 or more board-certified pediatric dermatology faculty member, and 27 programs still have none (unpublished data, September 2021).

A shortage of pediatric dermatologists in training programs contributes to the lack of exposure and mentorship for medical students and residents during a critical time in professional development. Studies show that up to 91% of pediatric dermatologists decided to pursue training in pediatric dermatology during medical school, pediatrics residency, or dermatology residency. In one survey, 84% of respondents (N=109) cited early mentorship as the most important factor in their decision to pursue pediatric dermatology.⁶

A lack of pediatric dermatologists also results in suboptimal dermatology training for residents who care for children in primary care specialties, including pediatrics, combined internal medicine and pediatrics, and family practice. Multiple surveys have shown that many pediatricians feel they received inadequate training in dermatology during residency. Up to 38% have cited a need for more pediatric dermatology education (N=755).^5,6 In addition, studies show a wide disparity in diagnostic accuracy between dermatologists and pediatricians, with one concluding that more than one-third of referrals to pediatric dermatologists were initially misdiagnosed and/or incorrectly treated.^5,7

Recruitment Efforts for Pediatric Dermatologists

There are multiple strategies for recruiting trainees into the pediatric dermatology workforce. First, given the importance of early exposure to the field and role models/mentors, pediatric dermatologists must take advantage of every opportunity to interact with medical students and residents. They can share their genuine enthusiasm and love for the specialty while encouraging and supporting those who show interest. They also should seek opportunities for teaching, lecturing, and advising at every level of training. In addition, they can enhance visibility of the specialty by participating in career forums and/or assuming leadership roles within their departments or institutions.¹² Another suggestion is for dermatology training programs to consider giving priority to qualified applicants who express sincere interest in pursuing pediatric dermatology training (including those who have already completed pediatrics residency). Although a 2008 survey revealed that 39% of dermatology residency programs (N=80) favored giving priority to applicants demonstrating interest in pediatric dermatology, others were against it, citing issues such as lack of funding for additional residency training, lack of pediatric dermatology mentors within the program, and an overall mistrust of applicants’ sincerity.²

Final Thoughts

The subspecialty of pediatric dermatology has experienced remarkable growth over the last 40 years; however, demand for pediatric dermatology services has continued to outpace supply, resulting in a persistent and notable workforce shortage. Overall, the current supply of pediatric dermatologists can neither meet the clinical demands of the pediatric population nor fulfill academic needs of existing training programs. We must continue to develop novel strategies for increasing the pool of students and residents who are interested in pursuing careers in pediatric dermatology. Ultimately, we also must create incentives and develop tactics to address the geographic maldistribution that exists within the specialty.

Pediatric dermatology is a relatively young subspecialty. The Society for Pediatric Dermatology (SPD) was established in 1975, followed by the creation of the journal Pediatric Dermatology in 1982 and the American Academy of Pediatrics Section on Dermatology in 1986.¹ In 2000, the Accreditation Council for Graduate Medical Education (ACGME) officially recognized pediatric dermatology as a unique subspecialty of the American Board of Dermatology (ABD). During that time, informal fellowship experiences emerged, and formal 1-year training programs approved by the ABD evolved by 2006. A subspecialty certification examination was created and has been administered every other year since 2004.¹ Data provided by the SPD indicate that approximately 431 US dermatologists have passed the ABD’s pediatric dermatology board certification examination thus far (unpublished data, September 2021).

In 1986, the first systematic evaluation of the US pediatric dermatology workforce revealed a total of 57 practicing pediatric dermatologists and concluded that job opportunities appeared to be limited at that time.² Since then, the demand for pediatric dermatology services has continued to grow steadily, and the number of board-certified pediatric dermatologists practicing in the United States has increased to at least 317 per data from a 2020 survey.³ However, given that there are more than 11,000 board-certified dermatologists in the United States, there continues to be a severe shortage of pediatric dermatologists.¹

Increased Demand for Pediatric Dermatologists

Approximately 10% to 30% of almost 200 million annual outpatient pediatric primary care visits involve a skin concern. Although many of these problems can be handled by primary care physicians, more than 80% of pediatricians report having difficulty accessing dermatology services for their patients.⁴ In surveys of pediatricians, pediatric dermatology has the third highest referral rate but has consistently ranked third among the specialties deemed most difficult to access.^5-7 In addition, it is not uncommon for the wait time to see a pediatric dermatologist to be 6 weeks or longer.^5,8

Recent population data estimate that there are 73 million children living in the United States.⁹ If there are roughly 317 practicing board-certified pediatric dermatologists, that translates into approximately 4.3 pediatric dermatologists per million children. This number is far smaller than the 4 general dermatologists per 100,000 individuals recommended by Glazer et al¹⁰ in 2017. To meet this suggested ratio goal, the workforce of pediatric dermatologists would have to increase to 2920. In addition to this severe workforce shortage, there is an additional problem with geographic maldistribution of pediatric dermatologists. More than 98% of pediatric dermatologists practice in metropolitan areas. At least 8 states and 95% of counties have no pediatric dermatologist, and there are no pediatric dermatologists practicing in rural counties.⁹ This disparity has considerable implications for barriers to care and lack of access for children living in underserved areas. Suggestions for attracting pediatric dermatologists to practice in these areas have included loan forgiveness programs as well as remote mentorship programs to provide professional support.^8,9

Training in Pediatrics

There currently are 38 ABD-approved pediatric dermatology fellowship training programs in the United States. Beginning in 2009, pediatric dermatology fellowship programs have participated in the SF Match program. Data provided by the SPD show that, since 2012, up to 27 programs have participated in the annual Match, offering a total number of positions ranging from 27 to 38; however, only 11 to 21 positions have been filled each year, leaving a large number of post-Match vacancies (unpublished data, September 2021).

Surveys have explored the reasons behind this lack of interest in pediatric dermatology training among dermatology residents. Factors that have been mentioned include lack of exposure and mentorship in medical school and residency, the financial hardship of an additional year of fellowship training, and historically lower salaries for pediatric dermatologists compared to general dermatologists.^3,6

A 2004 survey revealed that more than 75% of dermatology department chairs believed it was important to have a pediatric dermatologist on the faculty; however, at that time only 48% of dermatology programs reported having at least 1 full-time pediatric dermatology faculty member.¹¹ By 2008, a follow-up survey showed an increase to 70% of dermatology training programs reporting at least 1 full-time pediatric dermatologist; however, 43% of departments still had at least 1 open position, and 76% of those programs shared that they had been searching for more than 1 year.² Currently, the Accreditation Data System of the ACGME shows a total of 144 accredited US dermatology training programs. Of those, 117 programs have 1 or more board-certified pediatric dermatology faculty member, and 27 programs still have none (unpublished data, September 2021).

A shortage of pediatric dermatologists in training programs contributes to the lack of exposure and mentorship for medical students and residents during a critical time in professional development. Studies show that up to 91% of pediatric dermatologists decided to pursue training in pediatric dermatology during medical school, pediatrics residency, or dermatology residency. In one survey, 84% of respondents (N=109) cited early mentorship as the most important factor in their decision to pursue pediatric dermatology.⁶

A lack of pediatric dermatologists also results in suboptimal dermatology training for residents who care for children in primary care specialties, including pediatrics, combined internal medicine and pediatrics, and family practice. Multiple surveys have shown that many pediatricians feel they received inadequate training in dermatology during residency. Up to 38% have cited a need for more pediatric dermatology education (N=755).^5,6 In addition, studies show a wide disparity in diagnostic accuracy between dermatologists and pediatricians, with one concluding that more than one-third of referrals to pediatric dermatologists were initially misdiagnosed and/or incorrectly treated.^5,7

Recruitment Efforts for Pediatric Dermatologists

There are multiple strategies for recruiting trainees into the pediatric dermatology workforce. First, given the importance of early exposure to the field and role models/mentors, pediatric dermatologists must take advantage of every opportunity to interact with medical students and residents. They can share their genuine enthusiasm and love for the specialty while encouraging and supporting those who show interest. They also should seek opportunities for teaching, lecturing, and advising at every level of training. In addition, they can enhance visibility of the specialty by participating in career forums and/or assuming leadership roles within their departments or institutions.¹² Another suggestion is for dermatology training programs to consider giving priority to qualified applicants who express sincere interest in pursuing pediatric dermatology training (including those who have already completed pediatrics residency). Although a 2008 survey revealed that 39% of dermatology residency programs (N=80) favored giving priority to applicants demonstrating interest in pediatric dermatology, others were against it, citing issues such as lack of funding for additional residency training, lack of pediatric dermatology mentors within the program, and an overall mistrust of applicants’ sincerity.²

Final Thoughts

The subspecialty of pediatric dermatology has experienced remarkable growth over the last 40 years; however, demand for pediatric dermatology services has continued to outpace supply, resulting in a persistent and notable workforce shortage. Overall, the current supply of pediatric dermatologists can neither meet the clinical demands of the pediatric population nor fulfill academic needs of existing training programs. We must continue to develop novel strategies for increasing the pool of students and residents who are interested in pursuing careers in pediatric dermatology. Ultimately, we also must create incentives and develop tactics to address the geographic maldistribution that exists within the specialty.

Practice Gap

Frictional, symmetric, asymptomatic, erythematous macules of the hands and feet can be mistaken for perniolike lesions associated with COVID-19, commonly known as COVID toes. However, in a low-risk setting without other associated symptoms or concerning findings on examination, consider and inquire about frequent use of a swimming pool. This activity can lead to localized pressure- and friction-induced erythema on palmar and plantar surfaces, called “pool palms and feet,” expanding on the already-named lesion “pool palms”—an entity that is distinct from COVID toes.

Technique for Diagnosis

We evaluated 4 patients in the outpatient setting who presented with localized, patterned, erythematous lesions of the hands or feet, or both, during the COVID-19 pandemic. The parents of our patients were concerned that the rash represented “COVID fingers and toes,” which are perniolike lesions seen in patients with suspected or confirmed current or prior COVID-19.¹

Pernio, also known as chilblains, is a superficial inflammatory vascular response, usually in the setting of exposure to cold.² This phenomenon usually appears as erythematous or violaceous macules and papules on acral skin, particularly on the dorsum and sides of the fingers and toes, with edema, vesiculation, and ulceration in more severe cases. Initially, it is pruritic and painful at times.

With COVID toes, there often is a delayed presentation of perniolike lesions after the onset of other COVID-19 symptoms, such as fever, cough, headache, and sore throat.^2,3 It has been described more often in younger patients and those with milder disease. However, because our patients had no known exposure to SARS-CoV-2 or other associated symptoms, our suspicion was low.

The 4 patients we evaluated—aged 4 to 12 years and in their usual good health—had blanchable erythema of the palmar fingers, palmar eminences of both hands, and plantar surfaces of both feet (Figure). There was no swelling or tenderness, and the lesions had no violaceous coloration, vesiculation, or ulceration. There was no associated pruritus or pain. One patient reported rough texture and mild peeling of the hands.

Upon further inquiry, the patients reported a history of extended time spent in home swimming pools, including holding on to the edge of the pool, due to limitation of activities because of COVID restrictions. One parent noted that the pool that caused the rash had a rough nonslip surface, whereas other pools that the children used, which had a smoother surface, caused no problems.

The morphology of symmetric blanching erythema in areas of pressure and friction, in the absence of a notable medical history, signs, or symptoms, was consistent with a diagnosis of pool palms, which has been described in the medical literature.^4-9 Pool palms can affect the palms and soles, which are subject to substantial friction, especially when a person is getting in and out of the pool. There is a general consensus that pool palms is a frictional dermatitis affecting children because the greater fragility of their skin is exacerbated by immersion in water.^4-9

Pool palms and feet is benign. Only supportive care, with cessation of swimming and application of emollients, is necessary.

Apart from COVID-19, other conditions to consider in a patient with erythematous lesions of the palms and soles include eczematous dermatitis; neutrophilic eccrine hidradenitis; and, if lesions are vesicular, hand-foot-and-mouth disease. Juvenile plantar dermatosis, which is thought to be due to moisture with occlusion in shoes, also might be considered but is distinguished by more scales and fissures that can be painful.

Location of the lesions is a critical variable. The patients we evaluated had lesions primarily on palmar and plantar surfaces where contact with pool surfaces was greatest, such as at bony prominences, which supported a diagnosis of frictional dermatitis, such as pool palms and feet. A thorough history and physical examination are helpful in determining the diagnosis.

Practical Implications

It is important to consider and recognize this localized pressure phenomenon of pool palms and feet, thus obviating an unnecessary workup or therapeutic interventions. Specifically, a finding of erythematous asymptomatic macules, with or without scaling, on bony prominences of the palms and soles is more consistent with pool palms and feet.

Pernio and COVID toes both present as erythematous to violaceous papules and macules, with edema, vesiculation, and ulceration in severe cases, often on the dorsum and sides of fingers and toes; typically the conditions are pruritic and painful at times.

Explaining the diagnosis of pool palms and feet and sharing one’s experience with similar cases might help alleviate parental fear and anxiety during the COVID-19 pandemic.

Practice Gap

Frictional, symmetric, asymptomatic, erythematous macules of the hands and feet can be mistaken for perniolike lesions associated with COVID-19, commonly known as COVID toes. However, in a low-risk setting without other associated symptoms or concerning findings on examination, consider and inquire about frequent use of a swimming pool. This activity can lead to localized pressure- and friction-induced erythema on palmar and plantar surfaces, called “pool palms and feet,” expanding on the already-named lesion “pool palms”—an entity that is distinct from COVID toes.

Technique for Diagnosis

We evaluated 4 patients in the outpatient setting who presented with localized, patterned, erythematous lesions of the hands or feet, or both, during the COVID-19 pandemic. The parents of our patients were concerned that the rash represented “COVID fingers and toes,” which are perniolike lesions seen in patients with suspected or confirmed current or prior COVID-19.¹

Pernio, also known as chilblains, is a superficial inflammatory vascular response, usually in the setting of exposure to cold.² This phenomenon usually appears as erythematous or violaceous macules and papules on acral skin, particularly on the dorsum and sides of the fingers and toes, with edema, vesiculation, and ulceration in more severe cases. Initially, it is pruritic and painful at times.

With COVID toes, there often is a delayed presentation of perniolike lesions after the onset of other COVID-19 symptoms, such as fever, cough, headache, and sore throat.^2,3 It has been described more often in younger patients and those with milder disease. However, because our patients had no known exposure to SARS-CoV-2 or other associated symptoms, our suspicion was low.

The 4 patients we evaluated—aged 4 to 12 years and in their usual good health—had blanchable erythema of the palmar fingers, palmar eminences of both hands, and plantar surfaces of both feet (Figure). There was no swelling or tenderness, and the lesions had no violaceous coloration, vesiculation, or ulceration. There was no associated pruritus or pain. One patient reported rough texture and mild peeling of the hands.

Upon further inquiry, the patients reported a history of extended time spent in home swimming pools, including holding on to the edge of the pool, due to limitation of activities because of COVID restrictions. One parent noted that the pool that caused the rash had a rough nonslip surface, whereas other pools that the children used, which had a smoother surface, caused no problems.

The morphology of symmetric blanching erythema in areas of pressure and friction, in the absence of a notable medical history, signs, or symptoms, was consistent with a diagnosis of pool palms, which has been described in the medical literature.^4-9 Pool palms can affect the palms and soles, which are subject to substantial friction, especially when a person is getting in and out of the pool. There is a general consensus that pool palms is a frictional dermatitis affecting children because the greater fragility of their skin is exacerbated by immersion in water.^4-9

Pool palms and feet is benign. Only supportive care, with cessation of swimming and application of emollients, is necessary.

Apart from COVID-19, other conditions to consider in a patient with erythematous lesions of the palms and soles include eczematous dermatitis; neutrophilic eccrine hidradenitis; and, if lesions are vesicular, hand-foot-and-mouth disease. Juvenile plantar dermatosis, which is thought to be due to moisture with occlusion in shoes, also might be considered but is distinguished by more scales and fissures that can be painful.

Location of the lesions is a critical variable. The patients we evaluated had lesions primarily on palmar and plantar surfaces where contact with pool surfaces was greatest, such as at bony prominences, which supported a diagnosis of frictional dermatitis, such as pool palms and feet. A thorough history and physical examination are helpful in determining the diagnosis.

Practical Implications

It is important to consider and recognize this localized pressure phenomenon of pool palms and feet, thus obviating an unnecessary workup or therapeutic interventions. Specifically, a finding of erythematous asymptomatic macules, with or without scaling, on bony prominences of the palms and soles is more consistent with pool palms and feet.

Pernio and COVID toes both present as erythematous to violaceous papules and macules, with edema, vesiculation, and ulceration in severe cases, often on the dorsum and sides of fingers and toes; typically the conditions are pruritic and painful at times.

Explaining the diagnosis of pool palms and feet and sharing one’s experience with similar cases might help alleviate parental fear and anxiety during the COVID-19 pandemic.

Practice Gap

Frictional, symmetric, asymptomatic, erythematous macules of the hands and feet can be mistaken for perniolike lesions associated with COVID-19, commonly known as COVID toes. However, in a low-risk setting without other associated symptoms or concerning findings on examination, consider and inquire about frequent use of a swimming pool. This activity can lead to localized pressure- and friction-induced erythema on palmar and plantar surfaces, called “pool palms and feet,” expanding on the already-named lesion “pool palms”—an entity that is distinct from COVID toes.

Technique for Diagnosis

We evaluated 4 patients in the outpatient setting who presented with localized, patterned, erythematous lesions of the hands or feet, or both, during the COVID-19 pandemic. The parents of our patients were concerned that the rash represented “COVID fingers and toes,” which are perniolike lesions seen in patients with suspected or confirmed current or prior COVID-19.¹

Pernio, also known as chilblains, is a superficial inflammatory vascular response, usually in the setting of exposure to cold.² This phenomenon usually appears as erythematous or violaceous macules and papules on acral skin, particularly on the dorsum and sides of the fingers and toes, with edema, vesiculation, and ulceration in more severe cases. Initially, it is pruritic and painful at times.

With COVID toes, there often is a delayed presentation of perniolike lesions after the onset of other COVID-19 symptoms, such as fever, cough, headache, and sore throat.^2,3 It has been described more often in younger patients and those with milder disease. However, because our patients had no known exposure to SARS-CoV-2 or other associated symptoms, our suspicion was low.

The 4 patients we evaluated—aged 4 to 12 years and in their usual good health—had blanchable erythema of the palmar fingers, palmar eminences of both hands, and plantar surfaces of both feet (Figure). There was no swelling or tenderness, and the lesions had no violaceous coloration, vesiculation, or ulceration. There was no associated pruritus or pain. One patient reported rough texture and mild peeling of the hands.

Upon further inquiry, the patients reported a history of extended time spent in home swimming pools, including holding on to the edge of the pool, due to limitation of activities because of COVID restrictions. One parent noted that the pool that caused the rash had a rough nonslip surface, whereas other pools that the children used, which had a smoother surface, caused no problems.

The morphology of symmetric blanching erythema in areas of pressure and friction, in the absence of a notable medical history, signs, or symptoms, was consistent with a diagnosis of pool palms, which has been described in the medical literature.^4-9 Pool palms can affect the palms and soles, which are subject to substantial friction, especially when a person is getting in and out of the pool. There is a general consensus that pool palms is a frictional dermatitis affecting children because the greater fragility of their skin is exacerbated by immersion in water.^4-9

Pool palms and feet is benign. Only supportive care, with cessation of swimming and application of emollients, is necessary.

Apart from COVID-19, other conditions to consider in a patient with erythematous lesions of the palms and soles include eczematous dermatitis; neutrophilic eccrine hidradenitis; and, if lesions are vesicular, hand-foot-and-mouth disease. Juvenile plantar dermatosis, which is thought to be due to moisture with occlusion in shoes, also might be considered but is distinguished by more scales and fissures that can be painful.

Location of the lesions is a critical variable. The patients we evaluated had lesions primarily on palmar and plantar surfaces where contact with pool surfaces was greatest, such as at bony prominences, which supported a diagnosis of frictional dermatitis, such as pool palms and feet. A thorough history and physical examination are helpful in determining the diagnosis.

Practical Implications

It is important to consider and recognize this localized pressure phenomenon of pool palms and feet, thus obviating an unnecessary workup or therapeutic interventions. Specifically, a finding of erythematous asymptomatic macules, with or without scaling, on bony prominences of the palms and soles is more consistent with pool palms and feet.

Pernio and COVID toes both present as erythematous to violaceous papules and macules, with edema, vesiculation, and ulceration in severe cases, often on the dorsum and sides of fingers and toes; typically the conditions are pruritic and painful at times.

Explaining the diagnosis of pool palms and feet and sharing one’s experience with similar cases might help alleviate parental fear and anxiety during the COVID-19 pandemic.

In a new scientific statement on diet and lifestyle recommendations, the American Heart Association is highlighting, for the first time, structural challenges that impede the adoption of heart-healthy dietary patterns.

American Heart Association

This is in addition to stressing aspects of diet that improve cardiovascular health and reduce cardiovascular risk, with an emphasis on dietary patterns and food-based guidance beyond naming individual foods or nutrients.

The 2021 Dietary Guidance to Improve Cardiovascular Health scientific statement, developed under Alice H. Lichtenstein, DSc, chair of the AHA writing group, provides 10 evidence-based guidance recommendations to promote cardiometabolic health.

“The way to make heart-healthy choices every day,” said Dr. Lichtenstein, of the Jean Mayer USDA Human Nutrition Research Center on Aging at Tufts University in Boston, in a statement, “is to step back, look at the environment in which you eat, whether it be at home, at work, during social interaction, and then identify what the best choices are. And if there are no good choices, then think about how you can modify your environment so that there are good choices.”

The statement, published in Circulation, underscores growing evidence that nutrition-related chronic diseases have maternal-nutritional origins, and that prevention of pediatric obesity is a key to preserving and prolonging ideal cardiovascular health.

The features are as follows:

• Adjust energy intake and expenditure to achieve and maintain a healthy body weight. To counter the shift toward higher energy intake and more sedentary lifestyles over the past 3 decades, the statement recommends at least 150 minutes of moderate physical activity per week, adjusted for individual’s age, activity level, sex, and size.
• Eat plenty of fruits and vegetables; choose a wide variety. Observational and intervention studies document that dietary patterns rich in varied fruits and vegetables, with the exception of white potatoes, are linked to a lower risk of cardiovascular disease (CVD). Also, whole fruits and vegetables, which more readily provide fiber and satiety, are preferred over juices.
• Choose whole grain foods and products made mostly with whole grains rather than refined grains. Evidence from observational, interventional, and clinical studies confirm the benefits of frequent consumption of whole grains over infrequent consumption or over refined grains in terms of CVD risk, coronary heart disease (CHD), stroke, metabolic syndrome, cardiometabolic risk factors, laxation, and gut microbiota.
• Choose healthy sources of protein, mostly from plants (legumes and nuts).
• Higher intake of legumes, which are rich in protein and fiber, is associated with lower CVD risk, while higher nut intake is associated with lower risks of CVD, CHD, and stroke mortality/incidence. Replacing animal-source foods with plant-source whole foods, beyond health benefits, lowers the diet’s carbon footprint. Meat alternatives are often ultraprocessed and evidence on their short- and long-term health effects is limited. Unsaturated fats are preferred, as are lean, nonprocessed meats.
• Use liquid plant oils rather than tropical oils (coconut, palm, and palm kernel), animal fats (butter and lard), and partially hydrogenated fats. Saturated and trans fats (animal and dairy fats, and partially hydrogenated fat) should be replaced with nontropical liquid plant oils. Evidence supports cardiovascular benefits of dietary unsaturated fats, especially polyunsaturated fats primarily from plant oils (e.g. soybean, corn, safflower and sunflower oils, walnuts, and flax seeds).
• Choose minimally processed foods instead of ultraprocessed foods. Because of their proven association with adverse health outcomes, including overweight and obesity, cardiometabolic disorders (type 2 diabetes, CVD), and all-cause mortality, the consumption of many ultraprocessed foods is of concern. Ultraprocessed foods include artificial colors and flavors and preservatives that promote shelf stability, preserve texture, and increase palatability. A general principle is to emphasize unprocessed or minimally processed foods.
• Minimize intake of beverages and foods with added sugars. Added sugars (commonly glucose, dextrose, sucrose, corn syrup, honey, maple syrup, and concentrated fruit juice) are tied to elevated risk for type 2 diabetes, high cholesterol, and excess body weight. Findings from meta-analyses on body weight and metabolic outcomes for replacing added sugars with low-energy sweeteners are mixed, and the possibility of reverse causality has been raised.
• Choose and prepare foods with little or no salt. In general, the effects of sodium reduction on blood pressure tend to be higher in Black people, middle-aged and older people, and those with hypertension. In the United States, the main combined sources of sodium intake are processed foods, those prepared outside the home, packaged foods, and restaurant foods. Potassium-enriched salts are a promising alternative.
• If you don’t drink alcohol, don’t start; if you choose to drink, limit intake.
• While relationships between alcohol intake and cardiovascular outcomes are complex, the 2020 Dietary Guidelines Advisory Committee recently concluded that those who do drink should consume no more than one drink per day and should not drink alcohol in binges; the 2020 Dietary Guidelines for Americans con­tinues to recommend no more than one drink per day for women and two drinks per day for men.
• Adhere to the guidance regardless in all settings. Food-based dietary guidance applies to all foods and beverages, regardless of where prepared, procured, and consumed. Policies should be enacted that encourage healthier default options (for example, whole grains, minimized sodium and sugar content).

Recognizing impediments

The AHA/ASA scientific statement closes with the declaration: “Creating an environment that facilitates, rather than impedes, adherence to heart-healthy dietary patterns among all individuals is a public health imperative.” It points to the National Institutes of Health’s 2020-2030 Strategic Plan for National Institutes of Health Nutrition Research, which focuses on precision nutrition as a means “to determine the impact on health of not only what individuals eat, but also of why, when, and how they eat throughout the life course.”

Ultimately, precision nutrition may provide personalized diets for CVD prevention. But the “food environment,” often conditioned by “rampant nutrition misinformation” through local, state, and federal practices and policies, may impede the adoption of heart-healthy dietary patterns. Factors such as targeted food marketing (for example, of processed food and beverages in minority neighborhoods), structural racism, neighborhood segregation, unhealthy built environments, and food insecurity create environments in which unhealthy foods are the default option.”

These factors compound adverse dietary and health effects, and underscore a need to “directly combat nutrition misinformation among the public and health care professionals.” They also explain why, despite widespread knowledge of heart-healthy dietary pattern components, little progress has been made in achieving dietary goals in the United States.

Dr. Lichtenstein’s office, in response to a request regarding AHA advocacy and consumer programs, provided the following links: Voices for Healthy Kids initiative site and choosing healthier processed foods and one on fresh, frozen, and canned fruits and vegetables.

Dr. Lichtenstein had no disclosures. Disclosures for the writing group members are included in the statement.

In a new scientific statement on diet and lifestyle recommendations, the American Heart Association is highlighting, for the first time, structural challenges that impede the adoption of heart-healthy dietary patterns.

American Heart Association

This is in addition to stressing aspects of diet that improve cardiovascular health and reduce cardiovascular risk, with an emphasis on dietary patterns and food-based guidance beyond naming individual foods or nutrients.

The 2021 Dietary Guidance to Improve Cardiovascular Health scientific statement, developed under Alice H. Lichtenstein, DSc, chair of the AHA writing group, provides 10 evidence-based guidance recommendations to promote cardiometabolic health.

“The way to make heart-healthy choices every day,” said Dr. Lichtenstein, of the Jean Mayer USDA Human Nutrition Research Center on Aging at Tufts University in Boston, in a statement, “is to step back, look at the environment in which you eat, whether it be at home, at work, during social interaction, and then identify what the best choices are. And if there are no good choices, then think about how you can modify your environment so that there are good choices.”

The statement, published in Circulation, underscores growing evidence that nutrition-related chronic diseases have maternal-nutritional origins, and that prevention of pediatric obesity is a key to preserving and prolonging ideal cardiovascular health.

The features are as follows:

• Adjust energy intake and expenditure to achieve and maintain a healthy body weight. To counter the shift toward higher energy intake and more sedentary lifestyles over the past 3 decades, the statement recommends at least 150 minutes of moderate physical activity per week, adjusted for individual’s age, activity level, sex, and size.
• Eat plenty of fruits and vegetables; choose a wide variety. Observational and intervention studies document that dietary patterns rich in varied fruits and vegetables, with the exception of white potatoes, are linked to a lower risk of cardiovascular disease (CVD). Also, whole fruits and vegetables, which more readily provide fiber and satiety, are preferred over juices.
• Choose whole grain foods and products made mostly with whole grains rather than refined grains. Evidence from observational, interventional, and clinical studies confirm the benefits of frequent consumption of whole grains over infrequent consumption or over refined grains in terms of CVD risk, coronary heart disease (CHD), stroke, metabolic syndrome, cardiometabolic risk factors, laxation, and gut microbiota.
• Choose healthy sources of protein, mostly from plants (legumes and nuts).
• Higher intake of legumes, which are rich in protein and fiber, is associated with lower CVD risk, while higher nut intake is associated with lower risks of CVD, CHD, and stroke mortality/incidence. Replacing animal-source foods with plant-source whole foods, beyond health benefits, lowers the diet’s carbon footprint. Meat alternatives are often ultraprocessed and evidence on their short- and long-term health effects is limited. Unsaturated fats are preferred, as are lean, nonprocessed meats.
• Use liquid plant oils rather than tropical oils (coconut, palm, and palm kernel), animal fats (butter and lard), and partially hydrogenated fats. Saturated and trans fats (animal and dairy fats, and partially hydrogenated fat) should be replaced with nontropical liquid plant oils. Evidence supports cardiovascular benefits of dietary unsaturated fats, especially polyunsaturated fats primarily from plant oils (e.g. soybean, corn, safflower and sunflower oils, walnuts, and flax seeds).
• Choose minimally processed foods instead of ultraprocessed foods. Because of their proven association with adverse health outcomes, including overweight and obesity, cardiometabolic disorders (type 2 diabetes, CVD), and all-cause mortality, the consumption of many ultraprocessed foods is of concern. Ultraprocessed foods include artificial colors and flavors and preservatives that promote shelf stability, preserve texture, and increase palatability. A general principle is to emphasize unprocessed or minimally processed foods.
• Minimize intake of beverages and foods with added sugars. Added sugars (commonly glucose, dextrose, sucrose, corn syrup, honey, maple syrup, and concentrated fruit juice) are tied to elevated risk for type 2 diabetes, high cholesterol, and excess body weight. Findings from meta-analyses on body weight and metabolic outcomes for replacing added sugars with low-energy sweeteners are mixed, and the possibility of reverse causality has been raised.
• Choose and prepare foods with little or no salt. In general, the effects of sodium reduction on blood pressure tend to be higher in Black people, middle-aged and older people, and those with hypertension. In the United States, the main combined sources of sodium intake are processed foods, those prepared outside the home, packaged foods, and restaurant foods. Potassium-enriched salts are a promising alternative.
• If you don’t drink alcohol, don’t start; if you choose to drink, limit intake.
• While relationships between alcohol intake and cardiovascular outcomes are complex, the 2020 Dietary Guidelines Advisory Committee recently concluded that those who do drink should consume no more than one drink per day and should not drink alcohol in binges; the 2020 Dietary Guidelines for Americans con­tinues to recommend no more than one drink per day for women and two drinks per day for men.
• Adhere to the guidance regardless in all settings. Food-based dietary guidance applies to all foods and beverages, regardless of where prepared, procured, and consumed. Policies should be enacted that encourage healthier default options (for example, whole grains, minimized sodium and sugar content).

Recognizing impediments

The AHA/ASA scientific statement closes with the declaration: “Creating an environment that facilitates, rather than impedes, adherence to heart-healthy dietary patterns among all individuals is a public health imperative.” It points to the National Institutes of Health’s 2020-2030 Strategic Plan for National Institutes of Health Nutrition Research, which focuses on precision nutrition as a means “to determine the impact on health of not only what individuals eat, but also of why, when, and how they eat throughout the life course.”

Ultimately, precision nutrition may provide personalized diets for CVD prevention. But the “food environment,” often conditioned by “rampant nutrition misinformation” through local, state, and federal practices and policies, may impede the adoption of heart-healthy dietary patterns. Factors such as targeted food marketing (for example, of processed food and beverages in minority neighborhoods), structural racism, neighborhood segregation, unhealthy built environments, and food insecurity create environments in which unhealthy foods are the default option.”

These factors compound adverse dietary and health effects, and underscore a need to “directly combat nutrition misinformation among the public and health care professionals.” They also explain why, despite widespread knowledge of heart-healthy dietary pattern components, little progress has been made in achieving dietary goals in the United States.

Dr. Lichtenstein’s office, in response to a request regarding AHA advocacy and consumer programs, provided the following links: Voices for Healthy Kids initiative site and choosing healthier processed foods and one on fresh, frozen, and canned fruits and vegetables.

Dr. Lichtenstein had no disclosures. Disclosures for the writing group members are included in the statement.

In a new scientific statement on diet and lifestyle recommendations, the American Heart Association is highlighting, for the first time, structural challenges that impede the adoption of heart-healthy dietary patterns.

American Heart Association

This is in addition to stressing aspects of diet that improve cardiovascular health and reduce cardiovascular risk, with an emphasis on dietary patterns and food-based guidance beyond naming individual foods or nutrients.

The 2021 Dietary Guidance to Improve Cardiovascular Health scientific statement, developed under Alice H. Lichtenstein, DSc, chair of the AHA writing group, provides 10 evidence-based guidance recommendations to promote cardiometabolic health.

“The way to make heart-healthy choices every day,” said Dr. Lichtenstein, of the Jean Mayer USDA Human Nutrition Research Center on Aging at Tufts University in Boston, in a statement, “is to step back, look at the environment in which you eat, whether it be at home, at work, during social interaction, and then identify what the best choices are. And if there are no good choices, then think about how you can modify your environment so that there are good choices.”

The statement, published in Circulation, underscores growing evidence that nutrition-related chronic diseases have maternal-nutritional origins, and that prevention of pediatric obesity is a key to preserving and prolonging ideal cardiovascular health.

The features are as follows:

• Adjust energy intake and expenditure to achieve and maintain a healthy body weight. To counter the shift toward higher energy intake and more sedentary lifestyles over the past 3 decades, the statement recommends at least 150 minutes of moderate physical activity per week, adjusted for individual’s age, activity level, sex, and size.
• Eat plenty of fruits and vegetables; choose a wide variety. Observational and intervention studies document that dietary patterns rich in varied fruits and vegetables, with the exception of white potatoes, are linked to a lower risk of cardiovascular disease (CVD). Also, whole fruits and vegetables, which more readily provide fiber and satiety, are preferred over juices.
• Choose whole grain foods and products made mostly with whole grains rather than refined grains. Evidence from observational, interventional, and clinical studies confirm the benefits of frequent consumption of whole grains over infrequent consumption or over refined grains in terms of CVD risk, coronary heart disease (CHD), stroke, metabolic syndrome, cardiometabolic risk factors, laxation, and gut microbiota.
• Choose healthy sources of protein, mostly from plants (legumes and nuts).
• Higher intake of legumes, which are rich in protein and fiber, is associated with lower CVD risk, while higher nut intake is associated with lower risks of CVD, CHD, and stroke mortality/incidence. Replacing animal-source foods with plant-source whole foods, beyond health benefits, lowers the diet’s carbon footprint. Meat alternatives are often ultraprocessed and evidence on their short- and long-term health effects is limited. Unsaturated fats are preferred, as are lean, nonprocessed meats.
• Use liquid plant oils rather than tropical oils (coconut, palm, and palm kernel), animal fats (butter and lard), and partially hydrogenated fats. Saturated and trans fats (animal and dairy fats, and partially hydrogenated fat) should be replaced with nontropical liquid plant oils. Evidence supports cardiovascular benefits of dietary unsaturated fats, especially polyunsaturated fats primarily from plant oils (e.g. soybean, corn, safflower and sunflower oils, walnuts, and flax seeds).
• Choose minimally processed foods instead of ultraprocessed foods. Because of their proven association with adverse health outcomes, including overweight and obesity, cardiometabolic disorders (type 2 diabetes, CVD), and all-cause mortality, the consumption of many ultraprocessed foods is of concern. Ultraprocessed foods include artificial colors and flavors and preservatives that promote shelf stability, preserve texture, and increase palatability. A general principle is to emphasize unprocessed or minimally processed foods.
• Minimize intake of beverages and foods with added sugars. Added sugars (commonly glucose, dextrose, sucrose, corn syrup, honey, maple syrup, and concentrated fruit juice) are tied to elevated risk for type 2 diabetes, high cholesterol, and excess body weight. Findings from meta-analyses on body weight and metabolic outcomes for replacing added sugars with low-energy sweeteners are mixed, and the possibility of reverse causality has been raised.
• Choose and prepare foods with little or no salt. In general, the effects of sodium reduction on blood pressure tend to be higher in Black people, middle-aged and older people, and those with hypertension. In the United States, the main combined sources of sodium intake are processed foods, those prepared outside the home, packaged foods, and restaurant foods. Potassium-enriched salts are a promising alternative.
• If you don’t drink alcohol, don’t start; if you choose to drink, limit intake.
• While relationships between alcohol intake and cardiovascular outcomes are complex, the 2020 Dietary Guidelines Advisory Committee recently concluded that those who do drink should consume no more than one drink per day and should not drink alcohol in binges; the 2020 Dietary Guidelines for Americans con­tinues to recommend no more than one drink per day for women and two drinks per day for men.
• Adhere to the guidance regardless in all settings. Food-based dietary guidance applies to all foods and beverages, regardless of where prepared, procured, and consumed. Policies should be enacted that encourage healthier default options (for example, whole grains, minimized sodium and sugar content).

Recognizing impediments

The AHA/ASA scientific statement closes with the declaration: “Creating an environment that facilitates, rather than impedes, adherence to heart-healthy dietary patterns among all individuals is a public health imperative.” It points to the National Institutes of Health’s 2020-2030 Strategic Plan for National Institutes of Health Nutrition Research, which focuses on precision nutrition as a means “to determine the impact on health of not only what individuals eat, but also of why, when, and how they eat throughout the life course.”

Ultimately, precision nutrition may provide personalized diets for CVD prevention. But the “food environment,” often conditioned by “rampant nutrition misinformation” through local, state, and federal practices and policies, may impede the adoption of heart-healthy dietary patterns. Factors such as targeted food marketing (for example, of processed food and beverages in minority neighborhoods), structural racism, neighborhood segregation, unhealthy built environments, and food insecurity create environments in which unhealthy foods are the default option.”

These factors compound adverse dietary and health effects, and underscore a need to “directly combat nutrition misinformation among the public and health care professionals.” They also explain why, despite widespread knowledge of heart-healthy dietary pattern components, little progress has been made in achieving dietary goals in the United States.

Dr. Lichtenstein’s office, in response to a request regarding AHA advocacy and consumer programs, provided the following links: Voices for Healthy Kids initiative site and choosing healthier processed foods and one on fresh, frozen, and canned fruits and vegetables.

Dr. Lichtenstein had no disclosures. Disclosures for the writing group members are included in the statement.

Pediatric nail psoriasis is a condition that has not been extensively studied. The prevalence of nail alterations in pediatric patients with psoriasis varies among different studies, ranging from 17% to 39.2%.¹ Nail pitting, onycholysis associated with subungual hyperkeratosis, paronychia, and pachyonychia are the most frequent features of psoriatic nail involvement in children.^2,3 The management of nail psoriasis in children and adolescents is critical due to the quality-of-life impact, from potential functional impairment issues to the obvious cosmetic problems, which can aggravate the psychologic distress and social embarrassment of patients with psoriasis. Despite the emergence of modern potent systemic agents to treat chronic plaque psoriasis, nail psoriasis often is refractory to treatment.⁴ Coupled with the limited on-label options for psoriasis treatment in children, the management of nail psoriasis in this special patient group constitutes an even greater therapeutic challenge. This report aims to summarize the limited existing data on the successful management of nail psoriasis in the pediatric population.

Reviewing the Literature on Nail Psoriasis

We conducted a search of PubMed articles indexed for MEDLINE, Embase, and Scopus using the following Medical Subject Headings key terms: nail psoriasis and children, juvenile, pediatric. Additional articles were identified from the reference lists of the retrieved articles and citations. Our search included reports in the English language published from 2000 to 2019. The selection process included the following 2 steps: screening of the titles and abstracts, followed by evaluation of the selected full-text articles.

Topical Treatments for Nail Psoriasis

Because most systemic antipsoriatic treatments that can be administered in adult patients have not yet been granted an official license for administration in children, topical treatments are considered by many physicians as the preferred first-line therapy for psoriatic nail involvement in pediatric patients.^5,6 However, only scarce data are available in the literature concerning the successful use of local agents in pediatric patients with psoriasis.

The main limitation of local treatments relates mostly to their impaired penetration into the affected area (nails). To optimize drug penetration, some authors suggest the use of potent keratolytic topical preparations to reduce the nail volume and facilitate drug absorption.⁷ A popular suggestion is trimming the onycholytic nail plate followed by 40% urea avulsion to treat subungual hyperkeratosis⁸ or simply the use of occlusive 40% urea in petroleum jelly.⁹ Other approaches include clipping the onycholytic nail over the diseased nail bed or processing the nail plate through grinding or even drilling holes with the use of mechanical burrs or ablative lasers to enhance the penetration of the topical agent.⁷

A frequent approach in pediatric patients is clipping the detached nails combined with daily application of calcipotriene (calcipotriol) and steroids, such as betamethasone dipropionate.^5,8 Reports on the use of regimens with clobetasol propionate ointment 0.05% under occlusion, with or without the concomitant use of calcipotriol solution 0.005%, also are present in the literature but not always with satisfactory results.^10,11 Another successfully administered topical steroid is mometasone furoate cream 0.1%.¹² Although the use of intralesional triamcinolone acetonide also has demonstrated encouraging outcomes in isolated reports,¹³ associated adverse events, such as pain and hematomas, can result in tolerability issues for pediatric patients.⁷

Piraccini et al¹⁴ described the case of an 8-year-old patient with pustular nail psoriasis who showed improvement within 3 to 6 months of treatment with topical calcipotriol 5 μg/g as monotherapy applied to the nail and periungual tissues twice daily. Another approach, described by Diluvio et al,¹⁵ is the use of tazarotene gel 0.05% applied once daily to the affected nail plates, nail folds, and periungual skin without occlusion. In a 6-year-old patient with isolated nail psoriasis, this treatment regimen demonstrated notable improvement within 8 weeks.¹⁵

Systemic Treatments for Nail Psoriasis

Data on the successful administration of systemic agents in pediatric patients also are extremely scarce. Due to the lack of clinical trials, everyday practice is mostly based on isolated case series and case reports.

Methotrexate—Lee¹¹ described the case of an 11-year-old girl with severe, symptomatic, 20-nail psoriatic onychodystrophy who showed a complete response to oral methotrexate 5 mg/wk after topical clobetasol propionate and calcipotriol failed. Improvement was seen as early as 4 weeks after therapy initiation, and complete resolution of the lesions was documented after 9 and 13 months of methotrexate therapy for the fingers and toes, respectively.¹¹ The successful use of methotrexate in the improvement of psoriatic nail dystrophy in a pediatric patient also was documented by Teran et al.¹⁶ In this case, a 9-year-old girl with erythrodermic psoriasis, psoriatic arthritis, and severe onychodystrophy showed notable amelioration of all psoriatic manifestations, including the nail findings, with systemic methotrexate therapy (dose not specified).¹⁶ Notably, the authors reported that the improvement of onychodystrophy occurred with considerable delay compared to the other psoriatic lesions,¹⁶ indicating the already-known refractoriness of nail psoriasis to the various therapeutic attempts.^9-15

Acitretin—Another agent that has been linked with partial improvement of acrodermatitis continua of Hallopeau (ACH)–associated onychodystrophy is acitretin. In a case series of 15 pediatric patients with pustular psoriasis, a 5-year-old boy with severe nail involvement presented with partial amelioration of nail changes with acitretin within the first 6 weeks of treatment using the following regimen: initial dosage of 0.8 mg/kg/d for 6 weeks, followed by 0.3 mg/kg/d for 4 weeks.¹⁷

Biologics—The emerging use of biologics in pediatric psoriasis also has brought important advances in the successful management of nail psoriasis in children and adolescents.^18-21 Wells et al¹⁸ presented the case of an 8-year-old girl with nail psoriasis, psoriatic arthritis, and plaque psoriasis who showed complete resolution of all psoriatic manifestations, including nail involvement, within 3 months of treatment with secukinumab 150 mg subcutaneously every 4 weeks. Prior failed treatments included various systemic agents (ie, subcutaneous methotrexate 20 mg/m², etanercept 0.8 mg/kg weekly, adalimumab 40 mg every 2 weeks) as well as topical agents (ie, urea, tazarotene, corticosteroids) and intralesional triamcinolone.¹⁸

Infliximab also has been successfully used for pediatric nail psoriasis. Watabe et al¹⁹ presented the case of an 8-year-old girl with psoriatic onychodystrophy in addition to psoriatic onycho-pachydermo-periostitis. Prior therapy with adalimumab 20 mg every other week combined with methotrexate 10 mg weekly failed. She experienced notable amelioration of the nail dystrophy within 3 months of using a combination of infliximab and methotrexate (infliximab 5 mg/kg intravenously on weeks 0, 2, and 6, and every 8 weeks thereafter; methotrexate 10 mg/wk).¹⁹

Cases in which infliximab has resulted in rapid yet only transient restoration of psoriatic onychodystrophy also are present in the literature. Pereira et al²⁰ reported that a 3-year-old patient with severe 20-digit onychodystrophy in addition to pustular psoriasis had complete resolution of nail lesions within 2 weeks of treatment with infliximab (5 mg/kg at weeks 0, 2, and 6, and then every 7 weeks thereafter), which was sustained over the course of 1 year. The therapy had to be discontinued because of exacerbation of the cutaneous symptoms; thereafter, etanercept was initiated. Although the patient noted major improvement of all skin lesions under etanercept, only moderate amelioration of the psoriatic nail lesions was demonstrated.²⁰

Dini et al²¹ described a 9-year-old girl with severe ACH-associated psoriatic onychodystrophy who showed complete clearance of all lesions within 8 weeks of treatment with adalimumab (initially 80 mg, followed by 40 mg after 1 week and then 40 mg every other week). Prior treatment with potent topical corticosteroids, cyclosporine (3 mg/kg/d for 6 months), and etanercept (0.4 mg/kg twice weekly for 3 months) was ineffective.²¹

Phototherapy—Other systemic agents with reported satisfactory outcomes in the treatment of psoriatic onychodystrophy include thalidomide combined with UVB phototherapy. Kiszewski et al²² described a 2-year-old patient with ACH and severe 19-digit onychodystrophy. Prior failed therapies included occluded clobetasol ointment 0.05%, occluded pimecrolimus 0.1%, and systemic methotrexate, while systemic acitretin (0.8 mg⁄kg⁄d) resulted in elevated cholesterol levels and therefore had to be interrupted. Improvement was seen 2 months after the initiation of a combined broadband UVB and thalidomide (50 mg⁄d) treatment, with no documented relapses after discontinuation of therapy.²²

Narrowband UVB (311 nm) also has been used as monotherapy for ACH-associated onychodystrophy, as demonstrated by Bordignon et al.²³ They reported a 9-year-old patient who showed partial improvement of isolated onychodystrophy of the fourth nail plate of the left hand after 36 sessions of narrowband UVB using a 311-nm filtering handpiece with a square spot size of 19×19 mm.²³

Conclusion

Nail psoriasis constitutes a type of psoriasis that is not only refractory to most treatments but is accompanied by substantial psychological and occasionally functional burden for the affected individuals.²⁴ Data concerning therapeutic options in the pediatric population are extremely limited, and therefore the everyday practice often involves administration of off-label medications, which can constitute a dilemma for many physicians, especially for safety.¹⁰ We suggest a simple therapeutic algorithm for the management of pediatric nail psoriasis based on the summarized data that are currently available in the literature. This algorithm is shown in the eFigure.

As progressively more agents—especially biologics—receive approval for use in plaque psoriasis in pediatric patients,²⁵ it is expected that gradually more real-life data on their side efficacy for plaque psoriasis of the nails in children also will come to light. Furthermore, their on-label use in pediatric psoriasis patients will facilitate further relevant clinical trials to this target group so that the potential of these medications in the management of nail psoriasis can be fully explored.

Pediatric nail psoriasis is a condition that has not been extensively studied. The prevalence of nail alterations in pediatric patients with psoriasis varies among different studies, ranging from 17% to 39.2%.¹ Nail pitting, onycholysis associated with subungual hyperkeratosis, paronychia, and pachyonychia are the most frequent features of psoriatic nail involvement in children.^2,3 The management of nail psoriasis in children and adolescents is critical due to the quality-of-life impact, from potential functional impairment issues to the obvious cosmetic problems, which can aggravate the psychologic distress and social embarrassment of patients with psoriasis. Despite the emergence of modern potent systemic agents to treat chronic plaque psoriasis, nail psoriasis often is refractory to treatment.⁴ Coupled with the limited on-label options for psoriasis treatment in children, the management of nail psoriasis in this special patient group constitutes an even greater therapeutic challenge. This report aims to summarize the limited existing data on the successful management of nail psoriasis in the pediatric population.

Reviewing the Literature on Nail Psoriasis

We conducted a search of PubMed articles indexed for MEDLINE, Embase, and Scopus using the following Medical Subject Headings key terms: nail psoriasis and children, juvenile, pediatric. Additional articles were identified from the reference lists of the retrieved articles and citations. Our search included reports in the English language published from 2000 to 2019. The selection process included the following 2 steps: screening of the titles and abstracts, followed by evaluation of the selected full-text articles.

Topical Treatments for Nail Psoriasis

Because most systemic antipsoriatic treatments that can be administered in adult patients have not yet been granted an official license for administration in children, topical treatments are considered by many physicians as the preferred first-line therapy for psoriatic nail involvement in pediatric patients.^5,6 However, only scarce data are available in the literature concerning the successful use of local agents in pediatric patients with psoriasis.

The main limitation of local treatments relates mostly to their impaired penetration into the affected area (nails). To optimize drug penetration, some authors suggest the use of potent keratolytic topical preparations to reduce the nail volume and facilitate drug absorption.⁷ A popular suggestion is trimming the onycholytic nail plate followed by 40% urea avulsion to treat subungual hyperkeratosis⁸ or simply the use of occlusive 40% urea in petroleum jelly.⁹ Other approaches include clipping the onycholytic nail over the diseased nail bed or processing the nail plate through grinding or even drilling holes with the use of mechanical burrs or ablative lasers to enhance the penetration of the topical agent.⁷

A frequent approach in pediatric patients is clipping the detached nails combined with daily application of calcipotriene (calcipotriol) and steroids, such as betamethasone dipropionate.^5,8 Reports on the use of regimens with clobetasol propionate ointment 0.05% under occlusion, with or without the concomitant use of calcipotriol solution 0.005%, also are present in the literature but not always with satisfactory results.^10,11 Another successfully administered topical steroid is mometasone furoate cream 0.1%.¹² Although the use of intralesional triamcinolone acetonide also has demonstrated encouraging outcomes in isolated reports,¹³ associated adverse events, such as pain and hematomas, can result in tolerability issues for pediatric patients.⁷

Piraccini et al¹⁴ described the case of an 8-year-old patient with pustular nail psoriasis who showed improvement within 3 to 6 months of treatment with topical calcipotriol 5 μg/g as monotherapy applied to the nail and periungual tissues twice daily. Another approach, described by Diluvio et al,¹⁵ is the use of tazarotene gel 0.05% applied once daily to the affected nail plates, nail folds, and periungual skin without occlusion. In a 6-year-old patient with isolated nail psoriasis, this treatment regimen demonstrated notable improvement within 8 weeks.¹⁵

Systemic Treatments for Nail Psoriasis

Data on the successful administration of systemic agents in pediatric patients also are extremely scarce. Due to the lack of clinical trials, everyday practice is mostly based on isolated case series and case reports.

Methotrexate—Lee¹¹ described the case of an 11-year-old girl with severe, symptomatic, 20-nail psoriatic onychodystrophy who showed a complete response to oral methotrexate 5 mg/wk after topical clobetasol propionate and calcipotriol failed. Improvement was seen as early as 4 weeks after therapy initiation, and complete resolution of the lesions was documented after 9 and 13 months of methotrexate therapy for the fingers and toes, respectively.¹¹ The successful use of methotrexate in the improvement of psoriatic nail dystrophy in a pediatric patient also was documented by Teran et al.¹⁶ In this case, a 9-year-old girl with erythrodermic psoriasis, psoriatic arthritis, and severe onychodystrophy showed notable amelioration of all psoriatic manifestations, including the nail findings, with systemic methotrexate therapy (dose not specified).¹⁶ Notably, the authors reported that the improvement of onychodystrophy occurred with considerable delay compared to the other psoriatic lesions,¹⁶ indicating the already-known refractoriness of nail psoriasis to the various therapeutic attempts.^9-15

Acitretin—Another agent that has been linked with partial improvement of acrodermatitis continua of Hallopeau (ACH)–associated onychodystrophy is acitretin. In a case series of 15 pediatric patients with pustular psoriasis, a 5-year-old boy with severe nail involvement presented with partial amelioration of nail changes with acitretin within the first 6 weeks of treatment using the following regimen: initial dosage of 0.8 mg/kg/d for 6 weeks, followed by 0.3 mg/kg/d for 4 weeks.¹⁷

Biologics—The emerging use of biologics in pediatric psoriasis also has brought important advances in the successful management of nail psoriasis in children and adolescents.^18-21 Wells et al¹⁸ presented the case of an 8-year-old girl with nail psoriasis, psoriatic arthritis, and plaque psoriasis who showed complete resolution of all psoriatic manifestations, including nail involvement, within 3 months of treatment with secukinumab 150 mg subcutaneously every 4 weeks. Prior failed treatments included various systemic agents (ie, subcutaneous methotrexate 20 mg/m², etanercept 0.8 mg/kg weekly, adalimumab 40 mg every 2 weeks) as well as topical agents (ie, urea, tazarotene, corticosteroids) and intralesional triamcinolone.¹⁸

Infliximab also has been successfully used for pediatric nail psoriasis. Watabe et al¹⁹ presented the case of an 8-year-old girl with psoriatic onychodystrophy in addition to psoriatic onycho-pachydermo-periostitis. Prior therapy with adalimumab 20 mg every other week combined with methotrexate 10 mg weekly failed. She experienced notable amelioration of the nail dystrophy within 3 months of using a combination of infliximab and methotrexate (infliximab 5 mg/kg intravenously on weeks 0, 2, and 6, and every 8 weeks thereafter; methotrexate 10 mg/wk).¹⁹

Cases in which infliximab has resulted in rapid yet only transient restoration of psoriatic onychodystrophy also are present in the literature. Pereira et al²⁰ reported that a 3-year-old patient with severe 20-digit onychodystrophy in addition to pustular psoriasis had complete resolution of nail lesions within 2 weeks of treatment with infliximab (5 mg/kg at weeks 0, 2, and 6, and then every 7 weeks thereafter), which was sustained over the course of 1 year. The therapy had to be discontinued because of exacerbation of the cutaneous symptoms; thereafter, etanercept was initiated. Although the patient noted major improvement of all skin lesions under etanercept, only moderate amelioration of the psoriatic nail lesions was demonstrated.²⁰

Dini et al²¹ described a 9-year-old girl with severe ACH-associated psoriatic onychodystrophy who showed complete clearance of all lesions within 8 weeks of treatment with adalimumab (initially 80 mg, followed by 40 mg after 1 week and then 40 mg every other week). Prior treatment with potent topical corticosteroids, cyclosporine (3 mg/kg/d for 6 months), and etanercept (0.4 mg/kg twice weekly for 3 months) was ineffective.²¹

Phototherapy—Other systemic agents with reported satisfactory outcomes in the treatment of psoriatic onychodystrophy include thalidomide combined with UVB phototherapy. Kiszewski et al²² described a 2-year-old patient with ACH and severe 19-digit onychodystrophy. Prior failed therapies included occluded clobetasol ointment 0.05%, occluded pimecrolimus 0.1%, and systemic methotrexate, while systemic acitretin (0.8 mg⁄kg⁄d) resulted in elevated cholesterol levels and therefore had to be interrupted. Improvement was seen 2 months after the initiation of a combined broadband UVB and thalidomide (50 mg⁄d) treatment, with no documented relapses after discontinuation of therapy.²²

Narrowband UVB (311 nm) also has been used as monotherapy for ACH-associated onychodystrophy, as demonstrated by Bordignon et al.²³ They reported a 9-year-old patient who showed partial improvement of isolated onychodystrophy of the fourth nail plate of the left hand after 36 sessions of narrowband UVB using a 311-nm filtering handpiece with a square spot size of 19×19 mm.²³

Conclusion

Nail psoriasis constitutes a type of psoriasis that is not only refractory to most treatments but is accompanied by substantial psychological and occasionally functional burden for the affected individuals.²⁴ Data concerning therapeutic options in the pediatric population are extremely limited, and therefore the everyday practice often involves administration of off-label medications, which can constitute a dilemma for many physicians, especially for safety.¹⁰ We suggest a simple therapeutic algorithm for the management of pediatric nail psoriasis based on the summarized data that are currently available in the literature. This algorithm is shown in the eFigure.

As progressively more agents—especially biologics—receive approval for use in plaque psoriasis in pediatric patients,²⁵ it is expected that gradually more real-life data on their side efficacy for plaque psoriasis of the nails in children also will come to light. Furthermore, their on-label use in pediatric psoriasis patients will facilitate further relevant clinical trials to this target group so that the potential of these medications in the management of nail psoriasis can be fully explored.

Pediatric nail psoriasis is a condition that has not been extensively studied. The prevalence of nail alterations in pediatric patients with psoriasis varies among different studies, ranging from 17% to 39.2%.¹ Nail pitting, onycholysis associated with subungual hyperkeratosis, paronychia, and pachyonychia are the most frequent features of psoriatic nail involvement in children.^2,3 The management of nail psoriasis in children and adolescents is critical due to the quality-of-life impact, from potential functional impairment issues to the obvious cosmetic problems, which can aggravate the psychologic distress and social embarrassment of patients with psoriasis. Despite the emergence of modern potent systemic agents to treat chronic plaque psoriasis, nail psoriasis often is refractory to treatment.⁴ Coupled with the limited on-label options for psoriasis treatment in children, the management of nail psoriasis in this special patient group constitutes an even greater therapeutic challenge. This report aims to summarize the limited existing data on the successful management of nail psoriasis in the pediatric population.

Reviewing the Literature on Nail Psoriasis

We conducted a search of PubMed articles indexed for MEDLINE, Embase, and Scopus using the following Medical Subject Headings key terms: nail psoriasis and children, juvenile, pediatric. Additional articles were identified from the reference lists of the retrieved articles and citations. Our search included reports in the English language published from 2000 to 2019. The selection process included the following 2 steps: screening of the titles and abstracts, followed by evaluation of the selected full-text articles.

Topical Treatments for Nail Psoriasis

Because most systemic antipsoriatic treatments that can be administered in adult patients have not yet been granted an official license for administration in children, topical treatments are considered by many physicians as the preferred first-line therapy for psoriatic nail involvement in pediatric patients.^5,6 However, only scarce data are available in the literature concerning the successful use of local agents in pediatric patients with psoriasis.

The main limitation of local treatments relates mostly to their impaired penetration into the affected area (nails). To optimize drug penetration, some authors suggest the use of potent keratolytic topical preparations to reduce the nail volume and facilitate drug absorption.⁷ A popular suggestion is trimming the onycholytic nail plate followed by 40% urea avulsion to treat subungual hyperkeratosis⁸ or simply the use of occlusive 40% urea in petroleum jelly.⁹ Other approaches include clipping the onycholytic nail over the diseased nail bed or processing the nail plate through grinding or even drilling holes with the use of mechanical burrs or ablative lasers to enhance the penetration of the topical agent.⁷

A frequent approach in pediatric patients is clipping the detached nails combined with daily application of calcipotriene (calcipotriol) and steroids, such as betamethasone dipropionate.^5,8 Reports on the use of regimens with clobetasol propionate ointment 0.05% under occlusion, with or without the concomitant use of calcipotriol solution 0.005%, also are present in the literature but not always with satisfactory results.^10,11 Another successfully administered topical steroid is mometasone furoate cream 0.1%.¹² Although the use of intralesional triamcinolone acetonide also has demonstrated encouraging outcomes in isolated reports,¹³ associated adverse events, such as pain and hematomas, can result in tolerability issues for pediatric patients.⁷

Piraccini et al¹⁴ described the case of an 8-year-old patient with pustular nail psoriasis who showed improvement within 3 to 6 months of treatment with topical calcipotriol 5 μg/g as monotherapy applied to the nail and periungual tissues twice daily. Another approach, described by Diluvio et al,¹⁵ is the use of tazarotene gel 0.05% applied once daily to the affected nail plates, nail folds, and periungual skin without occlusion. In a 6-year-old patient with isolated nail psoriasis, this treatment regimen demonstrated notable improvement within 8 weeks.¹⁵

Systemic Treatments for Nail Psoriasis

Data on the successful administration of systemic agents in pediatric patients also are extremely scarce. Due to the lack of clinical trials, everyday practice is mostly based on isolated case series and case reports.

Methotrexate—Lee¹¹ described the case of an 11-year-old girl with severe, symptomatic, 20-nail psoriatic onychodystrophy who showed a complete response to oral methotrexate 5 mg/wk after topical clobetasol propionate and calcipotriol failed. Improvement was seen as early as 4 weeks after therapy initiation, and complete resolution of the lesions was documented after 9 and 13 months of methotrexate therapy for the fingers and toes, respectively.¹¹ The successful use of methotrexate in the improvement of psoriatic nail dystrophy in a pediatric patient also was documented by Teran et al.¹⁶ In this case, a 9-year-old girl with erythrodermic psoriasis, psoriatic arthritis, and severe onychodystrophy showed notable amelioration of all psoriatic manifestations, including the nail findings, with systemic methotrexate therapy (dose not specified).¹⁶ Notably, the authors reported that the improvement of onychodystrophy occurred with considerable delay compared to the other psoriatic lesions,¹⁶ indicating the already-known refractoriness of nail psoriasis to the various therapeutic attempts.^9-15

Acitretin—Another agent that has been linked with partial improvement of acrodermatitis continua of Hallopeau (ACH)–associated onychodystrophy is acitretin. In a case series of 15 pediatric patients with pustular psoriasis, a 5-year-old boy with severe nail involvement presented with partial amelioration of nail changes with acitretin within the first 6 weeks of treatment using the following regimen: initial dosage of 0.8 mg/kg/d for 6 weeks, followed by 0.3 mg/kg/d for 4 weeks.¹⁷

Biologics—The emerging use of biologics in pediatric psoriasis also has brought important advances in the successful management of nail psoriasis in children and adolescents.^18-21 Wells et al¹⁸ presented the case of an 8-year-old girl with nail psoriasis, psoriatic arthritis, and plaque psoriasis who showed complete resolution of all psoriatic manifestations, including nail involvement, within 3 months of treatment with secukinumab 150 mg subcutaneously every 4 weeks. Prior failed treatments included various systemic agents (ie, subcutaneous methotrexate 20 mg/m², etanercept 0.8 mg/kg weekly, adalimumab 40 mg every 2 weeks) as well as topical agents (ie, urea, tazarotene, corticosteroids) and intralesional triamcinolone.¹⁸

Infliximab also has been successfully used for pediatric nail psoriasis. Watabe et al¹⁹ presented the case of an 8-year-old girl with psoriatic onychodystrophy in addition to psoriatic onycho-pachydermo-periostitis. Prior therapy with adalimumab 20 mg every other week combined with methotrexate 10 mg weekly failed. She experienced notable amelioration of the nail dystrophy within 3 months of using a combination of infliximab and methotrexate (infliximab 5 mg/kg intravenously on weeks 0, 2, and 6, and every 8 weeks thereafter; methotrexate 10 mg/wk).¹⁹

Cases in which infliximab has resulted in rapid yet only transient restoration of psoriatic onychodystrophy also are present in the literature. Pereira et al²⁰ reported that a 3-year-old patient with severe 20-digit onychodystrophy in addition to pustular psoriasis had complete resolution of nail lesions within 2 weeks of treatment with infliximab (5 mg/kg at weeks 0, 2, and 6, and then every 7 weeks thereafter), which was sustained over the course of 1 year. The therapy had to be discontinued because of exacerbation of the cutaneous symptoms; thereafter, etanercept was initiated. Although the patient noted major improvement of all skin lesions under etanercept, only moderate amelioration of the psoriatic nail lesions was demonstrated.²⁰

Dini et al²¹ described a 9-year-old girl with severe ACH-associated psoriatic onychodystrophy who showed complete clearance of all lesions within 8 weeks of treatment with adalimumab (initially 80 mg, followed by 40 mg after 1 week and then 40 mg every other week). Prior treatment with potent topical corticosteroids, cyclosporine (3 mg/kg/d for 6 months), and etanercept (0.4 mg/kg twice weekly for 3 months) was ineffective.²¹

Phototherapy—Other systemic agents with reported satisfactory outcomes in the treatment of psoriatic onychodystrophy include thalidomide combined with UVB phototherapy. Kiszewski et al²² described a 2-year-old patient with ACH and severe 19-digit onychodystrophy. Prior failed therapies included occluded clobetasol ointment 0.05%, occluded pimecrolimus 0.1%, and systemic methotrexate, while systemic acitretin (0.8 mg⁄kg⁄d) resulted in elevated cholesterol levels and therefore had to be interrupted. Improvement was seen 2 months after the initiation of a combined broadband UVB and thalidomide (50 mg⁄d) treatment, with no documented relapses after discontinuation of therapy.²²

Narrowband UVB (311 nm) also has been used as monotherapy for ACH-associated onychodystrophy, as demonstrated by Bordignon et al.²³ They reported a 9-year-old patient who showed partial improvement of isolated onychodystrophy of the fourth nail plate of the left hand after 36 sessions of narrowband UVB using a 311-nm filtering handpiece with a square spot size of 19×19 mm.²³

Conclusion

Nail psoriasis constitutes a type of psoriasis that is not only refractory to most treatments but is accompanied by substantial psychological and occasionally functional burden for the affected individuals.²⁴ Data concerning therapeutic options in the pediatric population are extremely limited, and therefore the everyday practice often involves administration of off-label medications, which can constitute a dilemma for many physicians, especially for safety.¹⁰ We suggest a simple therapeutic algorithm for the management of pediatric nail psoriasis based on the summarized data that are currently available in the literature. This algorithm is shown in the eFigure.

As progressively more agents—especially biologics—receive approval for use in plaque psoriasis in pediatric patients,²⁵ it is expected that gradually more real-life data on their side efficacy for plaque psoriasis of the nails in children also will come to light. Furthermore, their on-label use in pediatric psoriasis patients will facilitate further relevant clinical trials to this target group so that the potential of these medications in the management of nail psoriasis can be fully explored.