Infectious Disease Practitioner

Ahmad Reza Djalali, an Iranian-Swedish physician specializing in disaster medicine, has begun a hunger strike after being sentenced to death in 2017.

Last year, Iran set a grim record, leading the world in executions. The country carried out at least 853 executions, which accounted for three quarters of the officially recorded executions worldwide. The Iranian government uses the death penalty to intimidate political opponents, especially since the women’s uprising in 2022, and to exert pressure on Western states in diplomatic standoffs.

Among the thousands of political prisoners currently on death row in Tehran’s notorious Evin prison is Dr. Djalali, a 52-year-old physician.

He emigrated to Sweden in 2009 and joined the Karolinska Institutet in Stockholm, Sweden. Over the years, he became one of Europe’s leading experts in disaster medicine. His work has been cited more than 700 times in medical literature, and he played a key role in establishing the emergency and disaster research center at the University of Piedmont.

In Italy, Denmark, and Sweden, Dr. Djalali helped hospitals and healthcare professionals in preparing for earthquakes, nuclear accidents, and terrorist attacks and designed several disaster medicine training programs.
 

‘Spreading Corruption’

Despite settling in Sweden with his family, Dr. Djalali never forgot his Iranian roots. His doctoral thesis was dedicated to the victims of the 2003 Bam earthquake in Iran, which killed 23,000 people. He expressed a desire to share his knowledge with his Iranian colleagues to help people. So when he was invited to participate in a 2016 conference at the University of Tehran, he accepted without hesitation.

Unfortunately, this decision had severe consequences. On April 25, 2016, as he was concluding his trip to Iran, the researcher was arrested by intelligence agents. After being held incommunicado for several days, he was officially accused of passing confidential information to Israeli intelligence services. According to his family, this accusation was baseless. They believed he was targeted for refusing to work for Iranian intelligence services in Europe.

On October 21, 2017, Dr. Djalali was sentenced to death for “spreading corruption on Earth,” a vague charge often used by Islamic courts against those who allegedly have challenged the regime. A few days later, a video of his “confessions” was broadcast on Iranian television. These confessions were coerced; Dr. Djalali later revealed that Iranian police had threatened to harm his mother in Iran and his family in Sweden.

Since then, Dr. Djalali and his loved ones have anxiously awaited the moment when the regime might carry out the sentence. Several times over the years, he has seemed on the verge of execution, only to receive a last-minute reprieve each time.

His imprisonment has taken a severe toll on his physical and mental health. He has reportedly lost 24 kg since his incarceration, and his family, who receive sporadic updates, suspect he has leukemia. Despite his deteriorating condition, the authorities have refused him access to a hematologist.
 

‘Forgotten’ in Exchange

The international medical community has rallied to secure Dr. Djalali’s release, but their efforts have so far been fruitless. The United Nations, the European Union, Amnesty International, several universities, and the World Medical Association have called for his release. In 2018, Sweden granted him citizenship in an attempt to increase pressure on Tehran, but Iranian law does not recognize dual citizenship.

On June 16, after nearly 7 years on death row, Dr. Djalali informed his family that he had begun a hunger strike. “It’s the only way to make my voice heard in the world,” he explained. “As a doctor, Ahmad Reza knows all too well that his fragile physical state makes a hunger strike potentially fatal, but he sees no other option. He suffers from cardiac arrhythmia, bradycardia, hypotension, chronic gastritis, anemia, and extreme weight loss following his two previous hunger strikes,” his wife told the press.

Aside from a potential (and unlikely) act of clemency by the Iranian authorities, Dr. Djalali’s best hope lies in a prisoner exchange. The Iranian government often imprisons foreign nationals to exchange them for Iranians detained in Western countries.

On June 15, Sweden agreed to release an Iranian dignitary serving a life sentence in exchange for the release of Swedish nationals detained in Iran. For a long time, Dr. Djalali’s family had hoped he would be included in this exchange.

However, to avoid jeopardizing the deal, the Swedish prime minister chose to accept the release of only two other Swedish nationals, leaving Dr. Djalali to his grim fate. “Mr Prime Minister, you have decided to abandon me at the enormous risk of being executed,” Dr. Djalali responded bitterly, knowing he could be hanged at any moment.
 

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

Ahmad Reza Djalali, an Iranian-Swedish physician specializing in disaster medicine, has begun a hunger strike after being sentenced to death in 2017.

Last year, Iran set a grim record, leading the world in executions. The country carried out at least 853 executions, which accounted for three quarters of the officially recorded executions worldwide. The Iranian government uses the death penalty to intimidate political opponents, especially since the women’s uprising in 2022, and to exert pressure on Western states in diplomatic standoffs.

Among the thousands of political prisoners currently on death row in Tehran’s notorious Evin prison is Dr. Djalali, a 52-year-old physician.

He emigrated to Sweden in 2009 and joined the Karolinska Institutet in Stockholm, Sweden. Over the years, he became one of Europe’s leading experts in disaster medicine. His work has been cited more than 700 times in medical literature, and he played a key role in establishing the emergency and disaster research center at the University of Piedmont.

In Italy, Denmark, and Sweden, Dr. Djalali helped hospitals and healthcare professionals in preparing for earthquakes, nuclear accidents, and terrorist attacks and designed several disaster medicine training programs.
 

‘Spreading Corruption’

Despite settling in Sweden with his family, Dr. Djalali never forgot his Iranian roots. His doctoral thesis was dedicated to the victims of the 2003 Bam earthquake in Iran, which killed 23,000 people. He expressed a desire to share his knowledge with his Iranian colleagues to help people. So when he was invited to participate in a 2016 conference at the University of Tehran, he accepted without hesitation.

Unfortunately, this decision had severe consequences. On April 25, 2016, as he was concluding his trip to Iran, the researcher was arrested by intelligence agents. After being held incommunicado for several days, he was officially accused of passing confidential information to Israeli intelligence services. According to his family, this accusation was baseless. They believed he was targeted for refusing to work for Iranian intelligence services in Europe.

On October 21, 2017, Dr. Djalali was sentenced to death for “spreading corruption on Earth,” a vague charge often used by Islamic courts against those who allegedly have challenged the regime. A few days later, a video of his “confessions” was broadcast on Iranian television. These confessions were coerced; Dr. Djalali later revealed that Iranian police had threatened to harm his mother in Iran and his family in Sweden.

Since then, Dr. Djalali and his loved ones have anxiously awaited the moment when the regime might carry out the sentence. Several times over the years, he has seemed on the verge of execution, only to receive a last-minute reprieve each time.

His imprisonment has taken a severe toll on his physical and mental health. He has reportedly lost 24 kg since his incarceration, and his family, who receive sporadic updates, suspect he has leukemia. Despite his deteriorating condition, the authorities have refused him access to a hematologist.
 

‘Forgotten’ in Exchange

The international medical community has rallied to secure Dr. Djalali’s release, but their efforts have so far been fruitless. The United Nations, the European Union, Amnesty International, several universities, and the World Medical Association have called for his release. In 2018, Sweden granted him citizenship in an attempt to increase pressure on Tehran, but Iranian law does not recognize dual citizenship.

On June 16, after nearly 7 years on death row, Dr. Djalali informed his family that he had begun a hunger strike. “It’s the only way to make my voice heard in the world,” he explained. “As a doctor, Ahmad Reza knows all too well that his fragile physical state makes a hunger strike potentially fatal, but he sees no other option. He suffers from cardiac arrhythmia, bradycardia, hypotension, chronic gastritis, anemia, and extreme weight loss following his two previous hunger strikes,” his wife told the press.

Aside from a potential (and unlikely) act of clemency by the Iranian authorities, Dr. Djalali’s best hope lies in a prisoner exchange. The Iranian government often imprisons foreign nationals to exchange them for Iranians detained in Western countries.

On June 15, Sweden agreed to release an Iranian dignitary serving a life sentence in exchange for the release of Swedish nationals detained in Iran. For a long time, Dr. Djalali’s family had hoped he would be included in this exchange.

However, to avoid jeopardizing the deal, the Swedish prime minister chose to accept the release of only two other Swedish nationals, leaving Dr. Djalali to his grim fate. “Mr Prime Minister, you have decided to abandon me at the enormous risk of being executed,” Dr. Djalali responded bitterly, knowing he could be hanged at any moment.
 

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

Ahmad Reza Djalali, an Iranian-Swedish physician specializing in disaster medicine, has begun a hunger strike after being sentenced to death in 2017.

Last year, Iran set a grim record, leading the world in executions. The country carried out at least 853 executions, which accounted for three quarters of the officially recorded executions worldwide. The Iranian government uses the death penalty to intimidate political opponents, especially since the women’s uprising in 2022, and to exert pressure on Western states in diplomatic standoffs.

Among the thousands of political prisoners currently on death row in Tehran’s notorious Evin prison is Dr. Djalali, a 52-year-old physician.

He emigrated to Sweden in 2009 and joined the Karolinska Institutet in Stockholm, Sweden. Over the years, he became one of Europe’s leading experts in disaster medicine. His work has been cited more than 700 times in medical literature, and he played a key role in establishing the emergency and disaster research center at the University of Piedmont.

In Italy, Denmark, and Sweden, Dr. Djalali helped hospitals and healthcare professionals in preparing for earthquakes, nuclear accidents, and terrorist attacks and designed several disaster medicine training programs.
 

‘Spreading Corruption’

Despite settling in Sweden with his family, Dr. Djalali never forgot his Iranian roots. His doctoral thesis was dedicated to the victims of the 2003 Bam earthquake in Iran, which killed 23,000 people. He expressed a desire to share his knowledge with his Iranian colleagues to help people. So when he was invited to participate in a 2016 conference at the University of Tehran, he accepted without hesitation.

Unfortunately, this decision had severe consequences. On April 25, 2016, as he was concluding his trip to Iran, the researcher was arrested by intelligence agents. After being held incommunicado for several days, he was officially accused of passing confidential information to Israeli intelligence services. According to his family, this accusation was baseless. They believed he was targeted for refusing to work for Iranian intelligence services in Europe.

On October 21, 2017, Dr. Djalali was sentenced to death for “spreading corruption on Earth,” a vague charge often used by Islamic courts against those who allegedly have challenged the regime. A few days later, a video of his “confessions” was broadcast on Iranian television. These confessions were coerced; Dr. Djalali later revealed that Iranian police had threatened to harm his mother in Iran and his family in Sweden.

Since then, Dr. Djalali and his loved ones have anxiously awaited the moment when the regime might carry out the sentence. Several times over the years, he has seemed on the verge of execution, only to receive a last-minute reprieve each time.

His imprisonment has taken a severe toll on his physical and mental health. He has reportedly lost 24 kg since his incarceration, and his family, who receive sporadic updates, suspect he has leukemia. Despite his deteriorating condition, the authorities have refused him access to a hematologist.
 

‘Forgotten’ in Exchange

The international medical community has rallied to secure Dr. Djalali’s release, but their efforts have so far been fruitless. The United Nations, the European Union, Amnesty International, several universities, and the World Medical Association have called for his release. In 2018, Sweden granted him citizenship in an attempt to increase pressure on Tehran, but Iranian law does not recognize dual citizenship.

On June 16, after nearly 7 years on death row, Dr. Djalali informed his family that he had begun a hunger strike. “It’s the only way to make my voice heard in the world,” he explained. “As a doctor, Ahmad Reza knows all too well that his fragile physical state makes a hunger strike potentially fatal, but he sees no other option. He suffers from cardiac arrhythmia, bradycardia, hypotension, chronic gastritis, anemia, and extreme weight loss following his two previous hunger strikes,” his wife told the press.

Aside from a potential (and unlikely) act of clemency by the Iranian authorities, Dr. Djalali’s best hope lies in a prisoner exchange. The Iranian government often imprisons foreign nationals to exchange them for Iranians detained in Western countries.

On June 15, Sweden agreed to release an Iranian dignitary serving a life sentence in exchange for the release of Swedish nationals detained in Iran. For a long time, Dr. Djalali’s family had hoped he would be included in this exchange.

However, to avoid jeopardizing the deal, the Swedish prime minister chose to accept the release of only two other Swedish nationals, leaving Dr. Djalali to his grim fate. “Mr Prime Minister, you have decided to abandon me at the enormous risk of being executed,” Dr. Djalali responded bitterly, knowing he could be hanged at any moment.
 

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

Individuals with preexisting sleep disturbances including obstructive sleep apnea (OSA), insomnia, and abnormal sleep duration showed significantly increased vulnerability to COVID-19, as well as an increased risk for hospitalization, mortality, and long COVID, according to new data from more than 8 million individuals.

Sleep disturbances, though common in the general population, are generally overlooked as a risk factor for COVID-19, wrote Jiawei Zhou, MD, of The First Hospital of China Medical University, Shenyang, China, and colleagues. Most previous research has focused on the impact of COVID-19 on sleep disturbances, not the impact of sleep disturbances on COVID-19, and most studies on the latter topic have focused only on OSA, the researchers wrote.

In a meta-analysis published in eClinicalMedicine, part of The Lancet Discovery Science, the researchers identified 48 observational studies published between October 27, 2023, and May 8, 2024, that involved COVID-19 and sleep disturbances including OSA, insomnia, abnormal sleep duration, and night shift work, among others. The study population included 8,664,026 adults.

The primary outcomes were COVID-19 susceptibility, hospitalization, mortality, and long COVID. Overall, the presence of preexisting sleep disturbances was associated with a significantly increased risk for each of these outcomes, with odds ratios (ORs) of 1.12, 1.25, 1.45, and 1.36, respectively.

In subgroup analyses, the association between preexisting sleep disturbances and greater susceptibility and hospitalization was higher in younger adults (younger than 60 years) than in older adults (aged 60 years and older), but the risk for death was lower in younger adults with sleep disturbances than in older adults with sleep disturbances (OR, 1.22 vs OR, 2.07, respectively). Men with sleep disturbances had a higher risk for COVID-19 mortality than women with sleep disturbances.

Preexisting sleep disturbances overall were significantly associated with long COVID and more so in a subgroup analysis of patients whose definition of long COVID was symptoms lasting 3 or more months vs those lasting 1 month (P = .029).

When the researchers broke down associations with COVID-19 outcomes and specific sleep disturbances, they found significant associations between OSA and all four primary outcomes. Abnormal sleep duration was associated with an increased risk for COVID-19 susceptibility, hospitalization, and long COVID. Night shift work was associated with an increased risk for COVID-19 susceptibility and hospitalization, and insomnia was associated with an increased risk for long COVID.

Although the exact mechanism behind the associations between preexisting sleep disturbances and COVID-19 outcomes is uncertain, persistent sleep deprivation could set the stage in various ways, including the promotion of elevated C-reactive protein and interleukin-6 levels, the researchers wrote.

“Overall, the compromised innate and adaptive immune functions combined with a persistent inflammatory state may explain the higher risk of susceptibility, severity, and longer recovery time observed in patients with sleep disturbances. Fortunately, early intervention for sleep disturbances could attenuate the adverse effects of COVID-19,” they noted in their discussion.

The findings were limited by several factors including the observational nature of the studies and the heterogeneity of outcomes, the researchers wrote. Looking ahead, randomized, controlled trials are needed to examine the effect of interventions for sleep disturbances in the prevention and course of COVID-19, they said.

However, the study is the first known to examine multiple types of sleep disturbances and their possible influences on the full clinical course of COVID-19 and support the need for early evaluation and intervention for individuals with sleep disturbances to reduce short-term and long-term effects of the disease, the researchers concluded.
 

Findings Reflect the Need to Address Sleep Issues Early

Although the results of the current study were not surprising, “it is always worth doing meta-analyses to see if there is a potential signal in the published data to suggest a need for a new study,” Arun Chatterjee, MD, professor of pulmonary, critical care, allergy, and immunologic diseases at Wake Forest University, Winston-Salem, North Carolina, said in an interview.

“Lack of sleep, whether acute active deprivation (zero sleep for one night) or subacute/chronic sleep debt, such as only 5 hours per night, has been demonstrated to affect lymphocyte proliferation, reduce immune globulin levels, increase inflammatory markers, shorten telomeres, and affect the immune system in various ways,” said Dr. Chatterjee, who was not involved in the meta-analysis.

The clinical takeaway from the current meta-analysis is that adequate sleep is important for various reasons, Dr. Chatterjee said. “Sleep disruption affects health across a spectrum of systems; adding an annual sleep wellness and screening event to healthcare visits is probably worth the investment,” he noted.

Much more is needed in the way of additional research, Dr. Chatterjee told this news organization. Notably, studies are needed to examine what sleep disruption does to immune status, as well as all other physiologic and mental health systems, he said.

The study was supported by the National Natural Science Foundation of China and the Key Laboratory of Respiratory Diseases of Liaoning Province. The researchers had no financial conflicts to disclose. Chatterjee had no financial conflicts to disclose.
 

A version of this article appeared on Medscape.com.

Individuals with preexisting sleep disturbances including obstructive sleep apnea (OSA), insomnia, and abnormal sleep duration showed significantly increased vulnerability to COVID-19, as well as an increased risk for hospitalization, mortality, and long COVID, according to new data from more than 8 million individuals.

Sleep disturbances, though common in the general population, are generally overlooked as a risk factor for COVID-19, wrote Jiawei Zhou, MD, of The First Hospital of China Medical University, Shenyang, China, and colleagues. Most previous research has focused on the impact of COVID-19 on sleep disturbances, not the impact of sleep disturbances on COVID-19, and most studies on the latter topic have focused only on OSA, the researchers wrote.

In a meta-analysis published in eClinicalMedicine, part of The Lancet Discovery Science, the researchers identified 48 observational studies published between October 27, 2023, and May 8, 2024, that involved COVID-19 and sleep disturbances including OSA, insomnia, abnormal sleep duration, and night shift work, among others. The study population included 8,664,026 adults.

The primary outcomes were COVID-19 susceptibility, hospitalization, mortality, and long COVID. Overall, the presence of preexisting sleep disturbances was associated with a significantly increased risk for each of these outcomes, with odds ratios (ORs) of 1.12, 1.25, 1.45, and 1.36, respectively.

In subgroup analyses, the association between preexisting sleep disturbances and greater susceptibility and hospitalization was higher in younger adults (younger than 60 years) than in older adults (aged 60 years and older), but the risk for death was lower in younger adults with sleep disturbances than in older adults with sleep disturbances (OR, 1.22 vs OR, 2.07, respectively). Men with sleep disturbances had a higher risk for COVID-19 mortality than women with sleep disturbances.

Preexisting sleep disturbances overall were significantly associated with long COVID and more so in a subgroup analysis of patients whose definition of long COVID was symptoms lasting 3 or more months vs those lasting 1 month (P = .029).

When the researchers broke down associations with COVID-19 outcomes and specific sleep disturbances, they found significant associations between OSA and all four primary outcomes. Abnormal sleep duration was associated with an increased risk for COVID-19 susceptibility, hospitalization, and long COVID. Night shift work was associated with an increased risk for COVID-19 susceptibility and hospitalization, and insomnia was associated with an increased risk for long COVID.

Although the exact mechanism behind the associations between preexisting sleep disturbances and COVID-19 outcomes is uncertain, persistent sleep deprivation could set the stage in various ways, including the promotion of elevated C-reactive protein and interleukin-6 levels, the researchers wrote.

“Overall, the compromised innate and adaptive immune functions combined with a persistent inflammatory state may explain the higher risk of susceptibility, severity, and longer recovery time observed in patients with sleep disturbances. Fortunately, early intervention for sleep disturbances could attenuate the adverse effects of COVID-19,” they noted in their discussion.

The findings were limited by several factors including the observational nature of the studies and the heterogeneity of outcomes, the researchers wrote. Looking ahead, randomized, controlled trials are needed to examine the effect of interventions for sleep disturbances in the prevention and course of COVID-19, they said.

However, the study is the first known to examine multiple types of sleep disturbances and their possible influences on the full clinical course of COVID-19 and support the need for early evaluation and intervention for individuals with sleep disturbances to reduce short-term and long-term effects of the disease, the researchers concluded.
 

Findings Reflect the Need to Address Sleep Issues Early

Although the results of the current study were not surprising, “it is always worth doing meta-analyses to see if there is a potential signal in the published data to suggest a need for a new study,” Arun Chatterjee, MD, professor of pulmonary, critical care, allergy, and immunologic diseases at Wake Forest University, Winston-Salem, North Carolina, said in an interview.

“Lack of sleep, whether acute active deprivation (zero sleep for one night) or subacute/chronic sleep debt, such as only 5 hours per night, has been demonstrated to affect lymphocyte proliferation, reduce immune globulin levels, increase inflammatory markers, shorten telomeres, and affect the immune system in various ways,” said Dr. Chatterjee, who was not involved in the meta-analysis.

The clinical takeaway from the current meta-analysis is that adequate sleep is important for various reasons, Dr. Chatterjee said. “Sleep disruption affects health across a spectrum of systems; adding an annual sleep wellness and screening event to healthcare visits is probably worth the investment,” he noted.

Much more is needed in the way of additional research, Dr. Chatterjee told this news organization. Notably, studies are needed to examine what sleep disruption does to immune status, as well as all other physiologic and mental health systems, he said.

The study was supported by the National Natural Science Foundation of China and the Key Laboratory of Respiratory Diseases of Liaoning Province. The researchers had no financial conflicts to disclose. Chatterjee had no financial conflicts to disclose.
 

A version of this article appeared on Medscape.com.

Individuals with preexisting sleep disturbances including obstructive sleep apnea (OSA), insomnia, and abnormal sleep duration showed significantly increased vulnerability to COVID-19, as well as an increased risk for hospitalization, mortality, and long COVID, according to new data from more than 8 million individuals.

Sleep disturbances, though common in the general population, are generally overlooked as a risk factor for COVID-19, wrote Jiawei Zhou, MD, of The First Hospital of China Medical University, Shenyang, China, and colleagues. Most previous research has focused on the impact of COVID-19 on sleep disturbances, not the impact of sleep disturbances on COVID-19, and most studies on the latter topic have focused only on OSA, the researchers wrote.

In a meta-analysis published in eClinicalMedicine, part of The Lancet Discovery Science, the researchers identified 48 observational studies published between October 27, 2023, and May 8, 2024, that involved COVID-19 and sleep disturbances including OSA, insomnia, abnormal sleep duration, and night shift work, among others. The study population included 8,664,026 adults.

The primary outcomes were COVID-19 susceptibility, hospitalization, mortality, and long COVID. Overall, the presence of preexisting sleep disturbances was associated with a significantly increased risk for each of these outcomes, with odds ratios (ORs) of 1.12, 1.25, 1.45, and 1.36, respectively.

In subgroup analyses, the association between preexisting sleep disturbances and greater susceptibility and hospitalization was higher in younger adults (younger than 60 years) than in older adults (aged 60 years and older), but the risk for death was lower in younger adults with sleep disturbances than in older adults with sleep disturbances (OR, 1.22 vs OR, 2.07, respectively). Men with sleep disturbances had a higher risk for COVID-19 mortality than women with sleep disturbances.

Preexisting sleep disturbances overall were significantly associated with long COVID and more so in a subgroup analysis of patients whose definition of long COVID was symptoms lasting 3 or more months vs those lasting 1 month (P = .029).

When the researchers broke down associations with COVID-19 outcomes and specific sleep disturbances, they found significant associations between OSA and all four primary outcomes. Abnormal sleep duration was associated with an increased risk for COVID-19 susceptibility, hospitalization, and long COVID. Night shift work was associated with an increased risk for COVID-19 susceptibility and hospitalization, and insomnia was associated with an increased risk for long COVID.

Although the exact mechanism behind the associations between preexisting sleep disturbances and COVID-19 outcomes is uncertain, persistent sleep deprivation could set the stage in various ways, including the promotion of elevated C-reactive protein and interleukin-6 levels, the researchers wrote.

“Overall, the compromised innate and adaptive immune functions combined with a persistent inflammatory state may explain the higher risk of susceptibility, severity, and longer recovery time observed in patients with sleep disturbances. Fortunately, early intervention for sleep disturbances could attenuate the adverse effects of COVID-19,” they noted in their discussion.

The findings were limited by several factors including the observational nature of the studies and the heterogeneity of outcomes, the researchers wrote. Looking ahead, randomized, controlled trials are needed to examine the effect of interventions for sleep disturbances in the prevention and course of COVID-19, they said.

However, the study is the first known to examine multiple types of sleep disturbances and their possible influences on the full clinical course of COVID-19 and support the need for early evaluation and intervention for individuals with sleep disturbances to reduce short-term and long-term effects of the disease, the researchers concluded.
 

Findings Reflect the Need to Address Sleep Issues Early

Although the results of the current study were not surprising, “it is always worth doing meta-analyses to see if there is a potential signal in the published data to suggest a need for a new study,” Arun Chatterjee, MD, professor of pulmonary, critical care, allergy, and immunologic diseases at Wake Forest University, Winston-Salem, North Carolina, said in an interview.

“Lack of sleep, whether acute active deprivation (zero sleep for one night) or subacute/chronic sleep debt, such as only 5 hours per night, has been demonstrated to affect lymphocyte proliferation, reduce immune globulin levels, increase inflammatory markers, shorten telomeres, and affect the immune system in various ways,” said Dr. Chatterjee, who was not involved in the meta-analysis.

The clinical takeaway from the current meta-analysis is that adequate sleep is important for various reasons, Dr. Chatterjee said. “Sleep disruption affects health across a spectrum of systems; adding an annual sleep wellness and screening event to healthcare visits is probably worth the investment,” he noted.

Much more is needed in the way of additional research, Dr. Chatterjee told this news organization. Notably, studies are needed to examine what sleep disruption does to immune status, as well as all other physiologic and mental health systems, he said.

The study was supported by the National Natural Science Foundation of China and the Key Laboratory of Respiratory Diseases of Liaoning Province. The researchers had no financial conflicts to disclose. Chatterjee had no financial conflicts to disclose.
 

A version of this article appeared on Medscape.com.

Your odds are 1 in 562,400.

Or, as Bill Mallon, the past president and cofounder of the International Society of Olympic Historians, has said, aspiring athletes have a 0.00000178% chance of making the Games.

Now imagine the odds of making the Olympics and then going on to become a physician. And maybe it’s not surprising that those who have done it credit the training they received as Olympic athletes as key to their success in medicine.

“Dealing with poor outcomes and having to get back up and try again,” said Olympian-turned-physician Ogonna Nnamani Silva, MD, “that reiterative process of trying to obtain perfection in your craft — that’s athletics 101.”

This connection isn’t just anecdotal. It has been discussed in medical journals and examined in surveys. The consensus is that, yes, there are specific characteristics elite athletes develop that physicians — regardless of their athletic background — can learn to apply to their work in medicine.

Maybe it’s something else, too: Certain mindsets don’t worry about long odds. They seek out crucibles again and again without concern for the heat involved. Because the outcome is worth it.

Here are four athletes who became high-performing physicians and how they did it.
 

The Gymnast/The Pediatric Surgeon

“Gymnastics helped me build a skill set for my career,” said Canadian Olympic gymnast-turned-pediatric orthopedic surgeon Lise Leveille, MD. “It led me to be successful as a medical student and ultimately obtain the job that I want in the area that I want working with the people that I want.”

The skills Dr. Leveille prizes include time management, teamwork, goal setting, and a strong work ethic, all of which propel an athlete to the crucial moment of “performance.”

“I miss performing,” said Dr. Leveille. “It defines who I was at that time. I miss being able to work toward something and then deliver when it counted” — like when she qualified for the 1998 Commonwealth games in Kuala Lumpur at 16.

The Canadian national team came third at that event, and Dr. Leveille built on that success at the Pan American Games, taking gold on the balance beam and as a team, and then qualifying for the Olympics at the 1999 World Championships. She competed in the team and five individual events at the 2000 Olympic Games in Sydney.

Though Dr. Leveille started gymnastics at age 3, her parents, both teachers, instilled in her the importance of education. Gymnastics opened academic doors for her, like being recruited to Stanford where she completed her undergraduate degree in biomedical engineering and human biology in 2004 before entering medical school at the University of British Columbia in Vancouver.

Now 41, Dr. Leveille accepts that she’ll never nail another gymnastics routine, but she channels that love of sticking the landing into the operating room at British Columbia Children’s Hospital, also in Vancouver.

“Some of the unknown variables within the operating room and how you deal with those unknown variables is exactly like showing up for a competition,” Dr. Leveille said. “When I have one of those cases where I have to perform under pressure and everything comes together, that’s exactly like nailing your routine when it counts most.”
 

The Pole Vaulter/The Emergency Medicine Physician

Tunisian American pole vaulter Leila Ben-Youssef, MD, had what could be considered a disappointing showing at the 2008 Olympic Games in Beijing. She collapsed from severe abdominal pain during the opening ceremony and had to be carried out. On the day of competition, she was still suffering. “I could barely run down the runway,” she recalled. “I cleared one bar. I was just happy to have been able to do that.”

When Dr. Ben-Youssef, who grew up in Montana, returned home, she underwent emergency surgery to remove the source of the pain: A large, benign tumor.

While some might be devastated by such bad luck, Dr. Ben-Youssef focuses on the success of her journey — the fact that she qualified and competed at the Olympics in the first place. The ability to accept setbacks is something she said comes with the territory.

“As an athlete, you’re always facing injury, and someone told me early in my career that the best athletes are the ones that know how to manage their expectations because it’s bound to happen,” she said. “So, there is disappointment. But recognizing that I did qualify for the Olympics despite being uncomfortable and having issues, I was still able to meet my goal.”

Prior to the games, Dr. Ben-Youssef had been accepted into medical school at the University of Washington School of Medicine at Montana State University in Bozeman, Montana. Thankfully, the school was supportive of Dr. Ben-Youssef’s Olympic dreams and allowed her to begin her studies a month behind her class. Upon her return from Beijing, she spent the rest of her medical school training with her head down, grinding.

“Medicine is hard,” said Dr. Ben-Youssef. “It’s grueling both physically and emotionally, and I think that’s similar to any elite sport. You’re going to deal with challenges and disappointment. I think having gone through that as an athlete really prepares you for the medical education system, for residency, and even for day-to-day work.”

Now a physician working in emergency medicine in Hawaii, Dr. Ben-Youssef feels the setbacks she experienced as an athlete help her connect with her patients as they deal with health challenges.

And as a volunteer pole vaulting coach for a local high school, Dr. Ben-Youssef has been able to surround herself with the positive, joyful energy of athletes. “Emergency medicine is often a sad place,” she said. “But in a sports environment, if people don’t succeed or are injured, there is still that energy there that strives for something, and it’s so fun to be around.”
 

The Rower/The Sports Medicine Specialist

Three-time US Olympic rower Genevra “Gevvie” Stone, MD, wanted to be a doctor even before she gave a thought to rowing. She was in eighth grade when she dislocated her knee for the third time. Her parents took her to a pediatric orthopedist, and Dr. Stone, according to her mom, declared: “That’s what I want to do when I grow up.”

“I’m a very stubborn person, and when I make a decision like that, I usually don’t veer from it,” Dr. Stone said.

That laser focus combined with a deep love of both sports and medicine has served Dr. Stone well. “Becoming a doctor and becoming an Olympian require you to dedicate not just your time and your energy but also your passion to that focus,” she said. “In both, you aren’t going to be successful if you don’t love what you’re doing. Finding the reward in it is what makes it achievable.”

Dr. Stone actually resisted rowing until she was 16 because both of her parents were Olympians in the sport and met on the US team. “It was their thing, and I didn’t want it to be my thing,” she recalled.

Nonetheless, Dr. Stone easily fell into the sport in her late teens and was recruited by Princeton University. “I had grown up around Olympians and kind of took it for granted that if you worked hard enough and were decent at rowing, then you could be one of the best in the world, without really realizing how difficult it would be to achieve that,” she said.

Dr. Stone’s team won the NCAA Championship in 2006 and was invited to try out for the 2008 Olympic team at the US training center after she graduated from college. But she didn’t make it.

Instead, Dr. Stone entered medical school at Tufts University School of Medicine, Boston, thinking her competitive rowing career had come to end. But her love for the sport was still strong, and she realized she wasn’t finished.

After 2 years of medical school, Dr. Stone requested 2 years off so she might have another shot at making the Olympic team. The timing was right. She went to the London Olympics in 2012, graduated from medical school in 2014, and then took 2 more years off to train full time for the 2016 Olympics in Rio where she won silver.

At the 2020 Olympic Games in Tokyo, Dr. Stone took fifth place in the double sculls. While she continues to race the master’s circuit, she’s primarily dedicated to completing her sports medicine fellowship at University of Utah Health.

Fortunately, Dr. Stone’s parents, coaches, and teachers always supported her goals. “No one turned to me and told me I was crazy, just choose medicine or rowing,” she said. “Everyone said that if this is what you want to do, we’re here to support you, and I wouldn’t have been able to do it without that support.”
 

The Volleyball Player/The Plastic Surgeon

Dr. Nnamani Silva’s journey to the Olympics was also paved with an extensive list of supporters, beginning with her parents. And she has taken that sense of collaboration, coordination, and teamwork into her medical career.

The daughter of Nigerian immigrants who came to the United States to escape civil war, Dr. Nnamani Silva said her parents embraced the American dream. “To see what they were able to do with hard work, dedication, and sacrifice, I had no choice but to work hard because I saw their example. And that love for and belief in America was so strong in my house growing up,” she said.

Dreams of practicing medicine came first. A severe asthmatic growing up, Dr. Nnamani Silva recalled having wonderful doctors. “I had so many emergency room visits and hospitalizations,” she said. “But the doctors always gave me hope, and they literally transformed my life. I thought if I could pass that on to my future patients, that would be the greatest honor of my life.”

Volleyball gave Dr. Nnamani Silva the opportunity to attend Stanford, and she took time off during her junior year to train and compete in the 2004 Olympic Games in Athens. She also played for the United States at the 2008 Olympic Games in Beijing where the team took silver. Afterward, she continued to play overseas for several years.

At 33, and with a newborn daughter, Dr. Nnamani Silva returned to her original goal of becoming a doctor. She attended the University of California, San Francisco, and is currently a resident in the Harvard Plastic Surgery Program. She includes her husband, parents, and in-laws in this achievement, whom she said “saved” her. “There is no chance I would have finished medical school and survived residency without them.”

As a volleyball player, Dr. Nnamani Silva said she “believes in teams wholeheartedly,” valuing the exchange of energy and skill that she feels brings out the best in people. As a medical student, she initially didn’t realize how her previous life would apply to teamwork in the operating room. But it soon became clear.

“In surgery, when you harness the talents of everyone around you and you create that synergy, it’s an amazing feeling,” she said. And the stakes are often high. “It requires a lot of focus, discipline, determination, and resilience because you’re going to be humbled all the time.” Something athletes know a little bit about.

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

Your odds are 1 in 562,400.

Or, as Bill Mallon, the past president and cofounder of the International Society of Olympic Historians, has said, aspiring athletes have a 0.00000178% chance of making the Games.

Now imagine the odds of making the Olympics and then going on to become a physician. And maybe it’s not surprising that those who have done it credit the training they received as Olympic athletes as key to their success in medicine.

“Dealing with poor outcomes and having to get back up and try again,” said Olympian-turned-physician Ogonna Nnamani Silva, MD, “that reiterative process of trying to obtain perfection in your craft — that’s athletics 101.”

This connection isn’t just anecdotal. It has been discussed in medical journals and examined in surveys. The consensus is that, yes, there are specific characteristics elite athletes develop that physicians — regardless of their athletic background — can learn to apply to their work in medicine.

Maybe it’s something else, too: Certain mindsets don’t worry about long odds. They seek out crucibles again and again without concern for the heat involved. Because the outcome is worth it.

Here are four athletes who became high-performing physicians and how they did it.
 

The Gymnast/The Pediatric Surgeon

“Gymnastics helped me build a skill set for my career,” said Canadian Olympic gymnast-turned-pediatric orthopedic surgeon Lise Leveille, MD. “It led me to be successful as a medical student and ultimately obtain the job that I want in the area that I want working with the people that I want.”

The skills Dr. Leveille prizes include time management, teamwork, goal setting, and a strong work ethic, all of which propel an athlete to the crucial moment of “performance.”

“I miss performing,” said Dr. Leveille. “It defines who I was at that time. I miss being able to work toward something and then deliver when it counted” — like when she qualified for the 1998 Commonwealth games in Kuala Lumpur at 16.

The Canadian national team came third at that event, and Dr. Leveille built on that success at the Pan American Games, taking gold on the balance beam and as a team, and then qualifying for the Olympics at the 1999 World Championships. She competed in the team and five individual events at the 2000 Olympic Games in Sydney.

Though Dr. Leveille started gymnastics at age 3, her parents, both teachers, instilled in her the importance of education. Gymnastics opened academic doors for her, like being recruited to Stanford where she completed her undergraduate degree in biomedical engineering and human biology in 2004 before entering medical school at the University of British Columbia in Vancouver.

Now 41, Dr. Leveille accepts that she’ll never nail another gymnastics routine, but she channels that love of sticking the landing into the operating room at British Columbia Children’s Hospital, also in Vancouver.

“Some of the unknown variables within the operating room and how you deal with those unknown variables is exactly like showing up for a competition,” Dr. Leveille said. “When I have one of those cases where I have to perform under pressure and everything comes together, that’s exactly like nailing your routine when it counts most.”
 

The Pole Vaulter/The Emergency Medicine Physician

Tunisian American pole vaulter Leila Ben-Youssef, MD, had what could be considered a disappointing showing at the 2008 Olympic Games in Beijing. She collapsed from severe abdominal pain during the opening ceremony and had to be carried out. On the day of competition, she was still suffering. “I could barely run down the runway,” she recalled. “I cleared one bar. I was just happy to have been able to do that.”

When Dr. Ben-Youssef, who grew up in Montana, returned home, she underwent emergency surgery to remove the source of the pain: A large, benign tumor.

While some might be devastated by such bad luck, Dr. Ben-Youssef focuses on the success of her journey — the fact that she qualified and competed at the Olympics in the first place. The ability to accept setbacks is something she said comes with the territory.

“As an athlete, you’re always facing injury, and someone told me early in my career that the best athletes are the ones that know how to manage their expectations because it’s bound to happen,” she said. “So, there is disappointment. But recognizing that I did qualify for the Olympics despite being uncomfortable and having issues, I was still able to meet my goal.”

Prior to the games, Dr. Ben-Youssef had been accepted into medical school at the University of Washington School of Medicine at Montana State University in Bozeman, Montana. Thankfully, the school was supportive of Dr. Ben-Youssef’s Olympic dreams and allowed her to begin her studies a month behind her class. Upon her return from Beijing, she spent the rest of her medical school training with her head down, grinding.

“Medicine is hard,” said Dr. Ben-Youssef. “It’s grueling both physically and emotionally, and I think that’s similar to any elite sport. You’re going to deal with challenges and disappointment. I think having gone through that as an athlete really prepares you for the medical education system, for residency, and even for day-to-day work.”

Now a physician working in emergency medicine in Hawaii, Dr. Ben-Youssef feels the setbacks she experienced as an athlete help her connect with her patients as they deal with health challenges.

And as a volunteer pole vaulting coach for a local high school, Dr. Ben-Youssef has been able to surround herself with the positive, joyful energy of athletes. “Emergency medicine is often a sad place,” she said. “But in a sports environment, if people don’t succeed or are injured, there is still that energy there that strives for something, and it’s so fun to be around.”
 

The Rower/The Sports Medicine Specialist

Three-time US Olympic rower Genevra “Gevvie” Stone, MD, wanted to be a doctor even before she gave a thought to rowing. She was in eighth grade when she dislocated her knee for the third time. Her parents took her to a pediatric orthopedist, and Dr. Stone, according to her mom, declared: “That’s what I want to do when I grow up.”

“I’m a very stubborn person, and when I make a decision like that, I usually don’t veer from it,” Dr. Stone said.

That laser focus combined with a deep love of both sports and medicine has served Dr. Stone well. “Becoming a doctor and becoming an Olympian require you to dedicate not just your time and your energy but also your passion to that focus,” she said. “In both, you aren’t going to be successful if you don’t love what you’re doing. Finding the reward in it is what makes it achievable.”

Dr. Stone actually resisted rowing until she was 16 because both of her parents were Olympians in the sport and met on the US team. “It was their thing, and I didn’t want it to be my thing,” she recalled.

Nonetheless, Dr. Stone easily fell into the sport in her late teens and was recruited by Princeton University. “I had grown up around Olympians and kind of took it for granted that if you worked hard enough and were decent at rowing, then you could be one of the best in the world, without really realizing how difficult it would be to achieve that,” she said.

Dr. Stone’s team won the NCAA Championship in 2006 and was invited to try out for the 2008 Olympic team at the US training center after she graduated from college. But she didn’t make it.

Instead, Dr. Stone entered medical school at Tufts University School of Medicine, Boston, thinking her competitive rowing career had come to end. But her love for the sport was still strong, and she realized she wasn’t finished.

After 2 years of medical school, Dr. Stone requested 2 years off so she might have another shot at making the Olympic team. The timing was right. She went to the London Olympics in 2012, graduated from medical school in 2014, and then took 2 more years off to train full time for the 2016 Olympics in Rio where she won silver.

At the 2020 Olympic Games in Tokyo, Dr. Stone took fifth place in the double sculls. While she continues to race the master’s circuit, she’s primarily dedicated to completing her sports medicine fellowship at University of Utah Health.

Fortunately, Dr. Stone’s parents, coaches, and teachers always supported her goals. “No one turned to me and told me I was crazy, just choose medicine or rowing,” she said. “Everyone said that if this is what you want to do, we’re here to support you, and I wouldn’t have been able to do it without that support.”
 

The Volleyball Player/The Plastic Surgeon

Dr. Nnamani Silva’s journey to the Olympics was also paved with an extensive list of supporters, beginning with her parents. And she has taken that sense of collaboration, coordination, and teamwork into her medical career.

The daughter of Nigerian immigrants who came to the United States to escape civil war, Dr. Nnamani Silva said her parents embraced the American dream. “To see what they were able to do with hard work, dedication, and sacrifice, I had no choice but to work hard because I saw their example. And that love for and belief in America was so strong in my house growing up,” she said.

Dreams of practicing medicine came first. A severe asthmatic growing up, Dr. Nnamani Silva recalled having wonderful doctors. “I had so many emergency room visits and hospitalizations,” she said. “But the doctors always gave me hope, and they literally transformed my life. I thought if I could pass that on to my future patients, that would be the greatest honor of my life.”

Volleyball gave Dr. Nnamani Silva the opportunity to attend Stanford, and she took time off during her junior year to train and compete in the 2004 Olympic Games in Athens. She also played for the United States at the 2008 Olympic Games in Beijing where the team took silver. Afterward, she continued to play overseas for several years.

At 33, and with a newborn daughter, Dr. Nnamani Silva returned to her original goal of becoming a doctor. She attended the University of California, San Francisco, and is currently a resident in the Harvard Plastic Surgery Program. She includes her husband, parents, and in-laws in this achievement, whom she said “saved” her. “There is no chance I would have finished medical school and survived residency without them.”

As a volleyball player, Dr. Nnamani Silva said she “believes in teams wholeheartedly,” valuing the exchange of energy and skill that she feels brings out the best in people. As a medical student, she initially didn’t realize how her previous life would apply to teamwork in the operating room. But it soon became clear.

“In surgery, when you harness the talents of everyone around you and you create that synergy, it’s an amazing feeling,” she said. And the stakes are often high. “It requires a lot of focus, discipline, determination, and resilience because you’re going to be humbled all the time.” Something athletes know a little bit about.

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

Your odds are 1 in 562,400.

Or, as Bill Mallon, the past president and cofounder of the International Society of Olympic Historians, has said, aspiring athletes have a 0.00000178% chance of making the Games.

Now imagine the odds of making the Olympics and then going on to become a physician. And maybe it’s not surprising that those who have done it credit the training they received as Olympic athletes as key to their success in medicine.

“Dealing with poor outcomes and having to get back up and try again,” said Olympian-turned-physician Ogonna Nnamani Silva, MD, “that reiterative process of trying to obtain perfection in your craft — that’s athletics 101.”

This connection isn’t just anecdotal. It has been discussed in medical journals and examined in surveys. The consensus is that, yes, there are specific characteristics elite athletes develop that physicians — regardless of their athletic background — can learn to apply to their work in medicine.

Maybe it’s something else, too: Certain mindsets don’t worry about long odds. They seek out crucibles again and again without concern for the heat involved. Because the outcome is worth it.

Here are four athletes who became high-performing physicians and how they did it.
 

The Gymnast/The Pediatric Surgeon

“Gymnastics helped me build a skill set for my career,” said Canadian Olympic gymnast-turned-pediatric orthopedic surgeon Lise Leveille, MD. “It led me to be successful as a medical student and ultimately obtain the job that I want in the area that I want working with the people that I want.”

The skills Dr. Leveille prizes include time management, teamwork, goal setting, and a strong work ethic, all of which propel an athlete to the crucial moment of “performance.”

“I miss performing,” said Dr. Leveille. “It defines who I was at that time. I miss being able to work toward something and then deliver when it counted” — like when she qualified for the 1998 Commonwealth games in Kuala Lumpur at 16.

The Canadian national team came third at that event, and Dr. Leveille built on that success at the Pan American Games, taking gold on the balance beam and as a team, and then qualifying for the Olympics at the 1999 World Championships. She competed in the team and five individual events at the 2000 Olympic Games in Sydney.

Though Dr. Leveille started gymnastics at age 3, her parents, both teachers, instilled in her the importance of education. Gymnastics opened academic doors for her, like being recruited to Stanford where she completed her undergraduate degree in biomedical engineering and human biology in 2004 before entering medical school at the University of British Columbia in Vancouver.

Now 41, Dr. Leveille accepts that she’ll never nail another gymnastics routine, but she channels that love of sticking the landing into the operating room at British Columbia Children’s Hospital, also in Vancouver.

“Some of the unknown variables within the operating room and how you deal with those unknown variables is exactly like showing up for a competition,” Dr. Leveille said. “When I have one of those cases where I have to perform under pressure and everything comes together, that’s exactly like nailing your routine when it counts most.”
 

The Pole Vaulter/The Emergency Medicine Physician

Tunisian American pole vaulter Leila Ben-Youssef, MD, had what could be considered a disappointing showing at the 2008 Olympic Games in Beijing. She collapsed from severe abdominal pain during the opening ceremony and had to be carried out. On the day of competition, she was still suffering. “I could barely run down the runway,” she recalled. “I cleared one bar. I was just happy to have been able to do that.”

When Dr. Ben-Youssef, who grew up in Montana, returned home, she underwent emergency surgery to remove the source of the pain: A large, benign tumor.

While some might be devastated by such bad luck, Dr. Ben-Youssef focuses on the success of her journey — the fact that she qualified and competed at the Olympics in the first place. The ability to accept setbacks is something she said comes with the territory.

“As an athlete, you’re always facing injury, and someone told me early in my career that the best athletes are the ones that know how to manage their expectations because it’s bound to happen,” she said. “So, there is disappointment. But recognizing that I did qualify for the Olympics despite being uncomfortable and having issues, I was still able to meet my goal.”

Prior to the games, Dr. Ben-Youssef had been accepted into medical school at the University of Washington School of Medicine at Montana State University in Bozeman, Montana. Thankfully, the school was supportive of Dr. Ben-Youssef’s Olympic dreams and allowed her to begin her studies a month behind her class. Upon her return from Beijing, she spent the rest of her medical school training with her head down, grinding.

“Medicine is hard,” said Dr. Ben-Youssef. “It’s grueling both physically and emotionally, and I think that’s similar to any elite sport. You’re going to deal with challenges and disappointment. I think having gone through that as an athlete really prepares you for the medical education system, for residency, and even for day-to-day work.”

Now a physician working in emergency medicine in Hawaii, Dr. Ben-Youssef feels the setbacks she experienced as an athlete help her connect with her patients as they deal with health challenges.

And as a volunteer pole vaulting coach for a local high school, Dr. Ben-Youssef has been able to surround herself with the positive, joyful energy of athletes. “Emergency medicine is often a sad place,” she said. “But in a sports environment, if people don’t succeed or are injured, there is still that energy there that strives for something, and it’s so fun to be around.”
 

The Rower/The Sports Medicine Specialist

Three-time US Olympic rower Genevra “Gevvie” Stone, MD, wanted to be a doctor even before she gave a thought to rowing. She was in eighth grade when she dislocated her knee for the third time. Her parents took her to a pediatric orthopedist, and Dr. Stone, according to her mom, declared: “That’s what I want to do when I grow up.”

“I’m a very stubborn person, and when I make a decision like that, I usually don’t veer from it,” Dr. Stone said.

That laser focus combined with a deep love of both sports and medicine has served Dr. Stone well. “Becoming a doctor and becoming an Olympian require you to dedicate not just your time and your energy but also your passion to that focus,” she said. “In both, you aren’t going to be successful if you don’t love what you’re doing. Finding the reward in it is what makes it achievable.”

Dr. Stone actually resisted rowing until she was 16 because both of her parents were Olympians in the sport and met on the US team. “It was their thing, and I didn’t want it to be my thing,” she recalled.

Nonetheless, Dr. Stone easily fell into the sport in her late teens and was recruited by Princeton University. “I had grown up around Olympians and kind of took it for granted that if you worked hard enough and were decent at rowing, then you could be one of the best in the world, without really realizing how difficult it would be to achieve that,” she said.

Dr. Stone’s team won the NCAA Championship in 2006 and was invited to try out for the 2008 Olympic team at the US training center after she graduated from college. But she didn’t make it.

Instead, Dr. Stone entered medical school at Tufts University School of Medicine, Boston, thinking her competitive rowing career had come to end. But her love for the sport was still strong, and she realized she wasn’t finished.

After 2 years of medical school, Dr. Stone requested 2 years off so she might have another shot at making the Olympic team. The timing was right. She went to the London Olympics in 2012, graduated from medical school in 2014, and then took 2 more years off to train full time for the 2016 Olympics in Rio where she won silver.

At the 2020 Olympic Games in Tokyo, Dr. Stone took fifth place in the double sculls. While she continues to race the master’s circuit, she’s primarily dedicated to completing her sports medicine fellowship at University of Utah Health.

Fortunately, Dr. Stone’s parents, coaches, and teachers always supported her goals. “No one turned to me and told me I was crazy, just choose medicine or rowing,” she said. “Everyone said that if this is what you want to do, we’re here to support you, and I wouldn’t have been able to do it without that support.”
 

The Volleyball Player/The Plastic Surgeon

Dr. Nnamani Silva’s journey to the Olympics was also paved with an extensive list of supporters, beginning with her parents. And she has taken that sense of collaboration, coordination, and teamwork into her medical career.

The daughter of Nigerian immigrants who came to the United States to escape civil war, Dr. Nnamani Silva said her parents embraced the American dream. “To see what they were able to do with hard work, dedication, and sacrifice, I had no choice but to work hard because I saw their example. And that love for and belief in America was so strong in my house growing up,” she said.

Dreams of practicing medicine came first. A severe asthmatic growing up, Dr. Nnamani Silva recalled having wonderful doctors. “I had so many emergency room visits and hospitalizations,” she said. “But the doctors always gave me hope, and they literally transformed my life. I thought if I could pass that on to my future patients, that would be the greatest honor of my life.”

Volleyball gave Dr. Nnamani Silva the opportunity to attend Stanford, and she took time off during her junior year to train and compete in the 2004 Olympic Games in Athens. She also played for the United States at the 2008 Olympic Games in Beijing where the team took silver. Afterward, she continued to play overseas for several years.

At 33, and with a newborn daughter, Dr. Nnamani Silva returned to her original goal of becoming a doctor. She attended the University of California, San Francisco, and is currently a resident in the Harvard Plastic Surgery Program. She includes her husband, parents, and in-laws in this achievement, whom she said “saved” her. “There is no chance I would have finished medical school and survived residency without them.”

As a volleyball player, Dr. Nnamani Silva said she “believes in teams wholeheartedly,” valuing the exchange of energy and skill that she feels brings out the best in people. As a medical student, she initially didn’t realize how her previous life would apply to teamwork in the operating room. But it soon became clear.

“In surgery, when you harness the talents of everyone around you and you create that synergy, it’s an amazing feeling,” she said. And the stakes are often high. “It requires a lot of focus, discipline, determination, and resilience because you’re going to be humbled all the time.” Something athletes know a little bit about.

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

Across the world, healthcare workers experience workplace violence, which can differ by gender, seniority, and the type of workplace, according to a recent study.

An analysis found that men were more likely to report physical violence, while women were more likely to face nonphysical violence, such as verbal abuse, sexual harassment, and bullying.

“Our study was sparked by the increasing research on workplace violence in healthcare settings. Yet, there’s less empirical data about workplace violence based on gender, its effects on individuals and the collective workforce, and its subsequent impact on patient care and healthcare organizations,” study author Basnama Ayaz, a PhD candidate in nursing at the University of Toronto, told this news organization.

“Workplace violence in healthcare settings is a critical issue that requires attention and action from all stakeholders, including individual providers, healthcare and other institutions, policymakers, and the community,” she said. “By recognizing the problem and implementing evidence-based solutions, we can create safer work environments that protect healthcare workers and improve quality care for patients and organizational effectiveness.”

The study was published online in PLOS Global Public Health.
 

Widespread and Severe

Although women represent most of the healthcare workforce worldwide, hierarchical structures tend to reflect traditional gender norms, where men hold leadership positions and women serve in front-line care roles, said Ms. Ayaz. Women are often marginalized, and their concerns dismissed, which can exacerbate their vulnerability to gender-based workplace violence, she added.

To better understand these imbalances on a global scale, the investigators conducted a scoping review of the prevalence of and risk factors for gender-based workplace violence in healthcare settings. Participants included physicians, nurses, and midwives, between 2010 and 2024. Although the authors acknowledged that gender-based workplace violence affects the full gender spectrum, only a handful of studies included information about nonbinary personnel, so the review focused on men and women.

Among 226 studies, half focused on physicians, 22% focused on nurses, and 28% included physicians, nurses, midwives, and other medical workers. About 64% of studies reported a higher prevalence of all forms of workplace violence for women, including sexual violence, verbal abuse, discrimination, bullying, and physical violence, while 17% reported a higher prevalence for men.

Overall, across most countries, men experienced more physical violence than did women, and women experienced more verbal abuse, sexual harassment, and bullying. Female nurses were particularly likely to experience violence.

Healthcare workers were also more likely to experience violence if they were younger, less experienced, had a lower professional status, or were part of a minority group based on ethnicity, nationality, culture, or language. These factors were sensitive to gender, “reflecting women’s structural disadvantages in the workplace,” wrote the authors.

As a result of workplace violence, women were more likely to report changes in mental health and social behaviors, as well as dissatisfaction, burnout, and changes in their career goals.

The research team identified various factors linked to violent episodes. In clinical settings where most perpetrators were patients and their relatives, abuse and violence could be related to overcrowding, waiting time, and heavy workloads for healthcare providers. When supervisors or colleagues were the perpetrators, workplace violence appeared to be more likely with long hours, night shifts, and certain clinical settings, such as emergency departments, psychiatric settings, operating rooms, and maternity wards, said Ms. Ayaz. Sexual or gender harassment toward women was more prevalent in male-dominated surgical specialties.

“We were surprised by the extent and severity of workplace violence that healthcare workers face around the globe based on gender,” she said. “One aspect that stood out was the significant role that organizational culture and support systems play either in mitigating or exacerbating these incidents, particularly the power structures between and within professions.”

For instance, trainees in lower hierarchical positions often face a higher risk for violence, especially gender-based harassment, she said. Many times, they feel they can’t report these incidents to trainers or managers, who may also be the perpetrators, she added.
 

Addressing Systemic Issues

In 2002, the World Health Organization, International Council of Nurses, and other major medical and labor groups worldwide launched a program focused on ways to eliminate workplace violence in healthcare settings. Since 2020, the call for a solution has grown louder as clinicians, nurses, and other health professionals faced more physical and verbal violence during the COVID-19 pandemic, often leading to burnout.

“Workplace violence is very important because it is more prevalent in healthcare workers than in many other settings and is on the rise,” said Karen Abrams, MD, assistant professor of psychiatry at the University of Toronto. Dr. Abrams, who wasn’t involved with this study, has researched physicians’ experiences of stalking by patients.

Workplace violence “can affect physical and mental health and lead to burnout, depression, anxiety, and symptoms of PTSD,” said Dr. Abrams. “It can affect one’s sleep and concentration and, therefore, ability to perform one’s job.”

Dr. Ayaz and colleagues suggested recommendations to improve gender-based workplace violence, noting the complex and multifaceted aspects of enhancing current policies, fortifying institutional capacities to respond, and implementing tailored interventions. Changes are needed at various levels, including at the healthcare system and provincial, territorial, and national levels, she said.

In Canada, for instance, lawmakers passed a bill in 2021 that amended the national criminal code to make intimidation or bullying a healthcare worker punishable by as many as 10 years in prison. The changes also required courts to consider more serious penalties for offenders who target healthcare workers aggressively.

But more needs to be done, medical professional groups say. The Canadian Nurses Association and Canadian Federation of Nurses Unions, as well as provincial groups, have called for a pan-Canadian violence-prevention framework, targeted funding for violence prevention infrastructure, and an update to the nation’s health human resources strategy to address severe staffing shortages across the country.

“Canada needs a bold vision for the future of our healthcare. Amid an ongoing staffing crisis, the cracks in our public healthcare systems have only grown deeper and wider, with too many going without the care they need when they need it,” Linda Silas, president of the Canadian Federation of Nurses Unions, told this news organization.

“Access to care relies on safe staffing. Years of unsafe working conditions and insufficient staffing are pushing nurses out of our public healthcare system,” she said. “Working collaboratively, we can make healthcare jobs the best jobs in our communities.”

The authors received no specific funding for the study. Ms. Ayaz, Dr. Abrams, and Ms. Silas reported no relevant financial relationships.

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

Across the world, healthcare workers experience workplace violence, which can differ by gender, seniority, and the type of workplace, according to a recent study.

An analysis found that men were more likely to report physical violence, while women were more likely to face nonphysical violence, such as verbal abuse, sexual harassment, and bullying.

“Our study was sparked by the increasing research on workplace violence in healthcare settings. Yet, there’s less empirical data about workplace violence based on gender, its effects on individuals and the collective workforce, and its subsequent impact on patient care and healthcare organizations,” study author Basnama Ayaz, a PhD candidate in nursing at the University of Toronto, told this news organization.

“Workplace violence in healthcare settings is a critical issue that requires attention and action from all stakeholders, including individual providers, healthcare and other institutions, policymakers, and the community,” she said. “By recognizing the problem and implementing evidence-based solutions, we can create safer work environments that protect healthcare workers and improve quality care for patients and organizational effectiveness.”

The study was published online in PLOS Global Public Health.
 

Widespread and Severe

Although women represent most of the healthcare workforce worldwide, hierarchical structures tend to reflect traditional gender norms, where men hold leadership positions and women serve in front-line care roles, said Ms. Ayaz. Women are often marginalized, and their concerns dismissed, which can exacerbate their vulnerability to gender-based workplace violence, she added.

To better understand these imbalances on a global scale, the investigators conducted a scoping review of the prevalence of and risk factors for gender-based workplace violence in healthcare settings. Participants included physicians, nurses, and midwives, between 2010 and 2024. Although the authors acknowledged that gender-based workplace violence affects the full gender spectrum, only a handful of studies included information about nonbinary personnel, so the review focused on men and women.

Among 226 studies, half focused on physicians, 22% focused on nurses, and 28% included physicians, nurses, midwives, and other medical workers. About 64% of studies reported a higher prevalence of all forms of workplace violence for women, including sexual violence, verbal abuse, discrimination, bullying, and physical violence, while 17% reported a higher prevalence for men.

Overall, across most countries, men experienced more physical violence than did women, and women experienced more verbal abuse, sexual harassment, and bullying. Female nurses were particularly likely to experience violence.

Healthcare workers were also more likely to experience violence if they were younger, less experienced, had a lower professional status, or were part of a minority group based on ethnicity, nationality, culture, or language. These factors were sensitive to gender, “reflecting women’s structural disadvantages in the workplace,” wrote the authors.

As a result of workplace violence, women were more likely to report changes in mental health and social behaviors, as well as dissatisfaction, burnout, and changes in their career goals.

The research team identified various factors linked to violent episodes. In clinical settings where most perpetrators were patients and their relatives, abuse and violence could be related to overcrowding, waiting time, and heavy workloads for healthcare providers. When supervisors or colleagues were the perpetrators, workplace violence appeared to be more likely with long hours, night shifts, and certain clinical settings, such as emergency departments, psychiatric settings, operating rooms, and maternity wards, said Ms. Ayaz. Sexual or gender harassment toward women was more prevalent in male-dominated surgical specialties.

“We were surprised by the extent and severity of workplace violence that healthcare workers face around the globe based on gender,” she said. “One aspect that stood out was the significant role that organizational culture and support systems play either in mitigating or exacerbating these incidents, particularly the power structures between and within professions.”

For instance, trainees in lower hierarchical positions often face a higher risk for violence, especially gender-based harassment, she said. Many times, they feel they can’t report these incidents to trainers or managers, who may also be the perpetrators, she added.
 

Addressing Systemic Issues

In 2002, the World Health Organization, International Council of Nurses, and other major medical and labor groups worldwide launched a program focused on ways to eliminate workplace violence in healthcare settings. Since 2020, the call for a solution has grown louder as clinicians, nurses, and other health professionals faced more physical and verbal violence during the COVID-19 pandemic, often leading to burnout.

“Workplace violence is very important because it is more prevalent in healthcare workers than in many other settings and is on the rise,” said Karen Abrams, MD, assistant professor of psychiatry at the University of Toronto. Dr. Abrams, who wasn’t involved with this study, has researched physicians’ experiences of stalking by patients.

Workplace violence “can affect physical and mental health and lead to burnout, depression, anxiety, and symptoms of PTSD,” said Dr. Abrams. “It can affect one’s sleep and concentration and, therefore, ability to perform one’s job.”

Dr. Ayaz and colleagues suggested recommendations to improve gender-based workplace violence, noting the complex and multifaceted aspects of enhancing current policies, fortifying institutional capacities to respond, and implementing tailored interventions. Changes are needed at various levels, including at the healthcare system and provincial, territorial, and national levels, she said.

In Canada, for instance, lawmakers passed a bill in 2021 that amended the national criminal code to make intimidation or bullying a healthcare worker punishable by as many as 10 years in prison. The changes also required courts to consider more serious penalties for offenders who target healthcare workers aggressively.

But more needs to be done, medical professional groups say. The Canadian Nurses Association and Canadian Federation of Nurses Unions, as well as provincial groups, have called for a pan-Canadian violence-prevention framework, targeted funding for violence prevention infrastructure, and an update to the nation’s health human resources strategy to address severe staffing shortages across the country.

“Canada needs a bold vision for the future of our healthcare. Amid an ongoing staffing crisis, the cracks in our public healthcare systems have only grown deeper and wider, with too many going without the care they need when they need it,” Linda Silas, president of the Canadian Federation of Nurses Unions, told this news organization.

“Access to care relies on safe staffing. Years of unsafe working conditions and insufficient staffing are pushing nurses out of our public healthcare system,” she said. “Working collaboratively, we can make healthcare jobs the best jobs in our communities.”

The authors received no specific funding for the study. Ms. Ayaz, Dr. Abrams, and Ms. Silas reported no relevant financial relationships.

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

Across the world, healthcare workers experience workplace violence, which can differ by gender, seniority, and the type of workplace, according to a recent study.

An analysis found that men were more likely to report physical violence, while women were more likely to face nonphysical violence, such as verbal abuse, sexual harassment, and bullying.

“Our study was sparked by the increasing research on workplace violence in healthcare settings. Yet, there’s less empirical data about workplace violence based on gender, its effects on individuals and the collective workforce, and its subsequent impact on patient care and healthcare organizations,” study author Basnama Ayaz, a PhD candidate in nursing at the University of Toronto, told this news organization.

“Workplace violence in healthcare settings is a critical issue that requires attention and action from all stakeholders, including individual providers, healthcare and other institutions, policymakers, and the community,” she said. “By recognizing the problem and implementing evidence-based solutions, we can create safer work environments that protect healthcare workers and improve quality care for patients and organizational effectiveness.”

The study was published online in PLOS Global Public Health.
 

Widespread and Severe

Although women represent most of the healthcare workforce worldwide, hierarchical structures tend to reflect traditional gender norms, where men hold leadership positions and women serve in front-line care roles, said Ms. Ayaz. Women are often marginalized, and their concerns dismissed, which can exacerbate their vulnerability to gender-based workplace violence, she added.

To better understand these imbalances on a global scale, the investigators conducted a scoping review of the prevalence of and risk factors for gender-based workplace violence in healthcare settings. Participants included physicians, nurses, and midwives, between 2010 and 2024. Although the authors acknowledged that gender-based workplace violence affects the full gender spectrum, only a handful of studies included information about nonbinary personnel, so the review focused on men and women.

Among 226 studies, half focused on physicians, 22% focused on nurses, and 28% included physicians, nurses, midwives, and other medical workers. About 64% of studies reported a higher prevalence of all forms of workplace violence for women, including sexual violence, verbal abuse, discrimination, bullying, and physical violence, while 17% reported a higher prevalence for men.

Overall, across most countries, men experienced more physical violence than did women, and women experienced more verbal abuse, sexual harassment, and bullying. Female nurses were particularly likely to experience violence.

Healthcare workers were also more likely to experience violence if they were younger, less experienced, had a lower professional status, or were part of a minority group based on ethnicity, nationality, culture, or language. These factors were sensitive to gender, “reflecting women’s structural disadvantages in the workplace,” wrote the authors.

As a result of workplace violence, women were more likely to report changes in mental health and social behaviors, as well as dissatisfaction, burnout, and changes in their career goals.

The research team identified various factors linked to violent episodes. In clinical settings where most perpetrators were patients and their relatives, abuse and violence could be related to overcrowding, waiting time, and heavy workloads for healthcare providers. When supervisors or colleagues were the perpetrators, workplace violence appeared to be more likely with long hours, night shifts, and certain clinical settings, such as emergency departments, psychiatric settings, operating rooms, and maternity wards, said Ms. Ayaz. Sexual or gender harassment toward women was more prevalent in male-dominated surgical specialties.

“We were surprised by the extent and severity of workplace violence that healthcare workers face around the globe based on gender,” she said. “One aspect that stood out was the significant role that organizational culture and support systems play either in mitigating or exacerbating these incidents, particularly the power structures between and within professions.”

For instance, trainees in lower hierarchical positions often face a higher risk for violence, especially gender-based harassment, she said. Many times, they feel they can’t report these incidents to trainers or managers, who may also be the perpetrators, she added.
 

Addressing Systemic Issues

In 2002, the World Health Organization, International Council of Nurses, and other major medical and labor groups worldwide launched a program focused on ways to eliminate workplace violence in healthcare settings. Since 2020, the call for a solution has grown louder as clinicians, nurses, and other health professionals faced more physical and verbal violence during the COVID-19 pandemic, often leading to burnout.

“Workplace violence is very important because it is more prevalent in healthcare workers than in many other settings and is on the rise,” said Karen Abrams, MD, assistant professor of psychiatry at the University of Toronto. Dr. Abrams, who wasn’t involved with this study, has researched physicians’ experiences of stalking by patients.

Workplace violence “can affect physical and mental health and lead to burnout, depression, anxiety, and symptoms of PTSD,” said Dr. Abrams. “It can affect one’s sleep and concentration and, therefore, ability to perform one’s job.”

Dr. Ayaz and colleagues suggested recommendations to improve gender-based workplace violence, noting the complex and multifaceted aspects of enhancing current policies, fortifying institutional capacities to respond, and implementing tailored interventions. Changes are needed at various levels, including at the healthcare system and provincial, territorial, and national levels, she said.

In Canada, for instance, lawmakers passed a bill in 2021 that amended the national criminal code to make intimidation or bullying a healthcare worker punishable by as many as 10 years in prison. The changes also required courts to consider more serious penalties for offenders who target healthcare workers aggressively.

But more needs to be done, medical professional groups say. The Canadian Nurses Association and Canadian Federation of Nurses Unions, as well as provincial groups, have called for a pan-Canadian violence-prevention framework, targeted funding for violence prevention infrastructure, and an update to the nation’s health human resources strategy to address severe staffing shortages across the country.

“Canada needs a bold vision for the future of our healthcare. Amid an ongoing staffing crisis, the cracks in our public healthcare systems have only grown deeper and wider, with too many going without the care they need when they need it,” Linda Silas, president of the Canadian Federation of Nurses Unions, told this news organization.

“Access to care relies on safe staffing. Years of unsafe working conditions and insufficient staffing are pushing nurses out of our public healthcare system,” she said. “Working collaboratively, we can make healthcare jobs the best jobs in our communities.”

The authors received no specific funding for the study. Ms. Ayaz, Dr. Abrams, and Ms. Silas reported no relevant financial relationships.

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

Editor’s Note: This piece was originally published in Dr. Glasser’s bimonthly column in The Jolt, a nonprofit online news organization based in Olympia, Washington. She was inspired to write her story after meeting Christine Laine, MD, one of three female physician presenters at the Sommer Lectures in Portland, Oregon, in May 2024. The article has been edited lightly from the original. 

Primary care internal medicine — the medical field I chose, loved, and practiced for four decades — is dead. 

The grief and shock I feel about this is personal and transpersonal. The loss of internists (internal medicine physicians) practicing primary care is a major loss to us all. 

From the 1970s to roughly 2020, there were three groups of primary care physicians: family practice, pediatricians, and internists. In their 3-year residencies (after 4 years of medical school), pediatricians trained to care for children and adolescents; internists for adults; and FPs for children, adults, and women and pregnancy. Family practitioners are the most general of the generalists, whereas the others’ training involves comprehensive care of complex patients in their age groups.

How and when the field of primary care internal medicine flourished is my story. 

I was one of those kids who was hyperfocused on science, math, and the human body. By the end of high school, I was considering medicine for my career. 

To learn more, I volunteered at the local hospital. In my typical style, I requested not to be one of those candy stripers serving drinks on the wards. Instead, they put me in the emergency department, where I would transport patients and clean the stretchers. There I was free to watch whatever was going on if I did not interfere with the staff. On my first shift, a 20-year-old drowning victim arrived by ambulance. I watched the entire unsuccessful resuscitation and as shocked and saddened as I was, I knew (in the way only a headstrong 18-year-old can) that medicine was for me. 

It was a fortuitous time to graduate as a female pre-med student. 

In 1975, our country was in the midst of the women’s movement and a national effort to train primary care physicians. I was accepted to my state medical school. The University of Massachusetts Medical School had been established a few years earlier, with its main purpose to train primary care physicians and spread them around the state (especially out of the Boston metropolitan area). The curriculum was designed to expose students to primary care from year one. I was assigned to shadow a general practice physician in inner-city Springfield who saw over 50 patients a day! The patients knew they could see and afford him, so they crammed into his waiting room until their name was called in order of their arrival. No appointments necessary. His chart notes were a few scribbled sentences. I didn’t see myself in that practice exactly, but his work ethic and dedication inspired me. 

Over half of our graduating class chose to train in primary care specialties, and most stayed in-state. It turned out to be a good bet on the part of the government of Massachusetts. 

When I applied for residency in 1980, several internal medicine programs had a focus on primary care, which was my goal. I matched at Providence St. Vincent Hospital in Portland, Oregon, and moved across the country to the Pacific Northwest, never to look back. There, my attendings were doctors like I wanted to be: primary care internists in the community, not in academia. It was the perfect choice and an excellent training program. 

In 1984, I hung out my private practice internal medicine shingle in Hillsboro, Oregon, across the street from the community hospital. My primary care internal medicine colleagues and I shared weekend calls and admitted and cared for our patients in the hospital, and when they were discharged. That is now called “continuity of care.” It was a time when we ate in the doctors’ lounge together, met in hallways, and informally consulted each other about our patients. These were called “curbside consults.” They were invaluable to our ability to provide comprehensive care to our patients in primary care, led to fewer specialty referrals, and were free. That would now be called interprofessional communication and collegiality. 

“Burnout” was not a word you heard. We were busy and happy doing what we had spent 12 years of our precious youth to prepare for. 

What did internists offer to primary care? That also is part of my story. 

When I moved to Olympia, I took a position in the women’s health clinic at the American Lake Veterans Administration Medical Center. 

We were a small group: two family practice doctors, three nurse practitioners, and me, the only internist. Many of our patients were sick and complex. Two of the nurse practitioners (NPs) asked me to take their most complicated patients. Being comfortable with complexity as an internist, I said yes. 

One of the NPs was inappropriately hired, as she had experience in women’s health. She came to me freaked out: “Oh my God, I have no idea how to manage COPD!” The other wanted simpler patients. I don’t blame them for the patient transfers. NPs typically have 3 years of training before they practice, in contrast to primary care physicians’ 8. 

Guess who made friends with the custodian, staying until 8 p.m. most evenings, and who left by 5:30 p.m. 

What was I doing in those extra hours? I was trudging through clerical, yet important, tasks my medical assistant and transcriptionist used to do in private practice. In the 30 minutes allotted for the patient, I needed to focus entirely on them and their multiple complex medical problems. 

What is lost with the death of primary care internal medicine? 

At the recent Sommer Memorial Lectures in Portland, Steven D. Freer, MD, the current director of the residency program where I trained, has not had a single of his eight annual internal medicine graduates choose primary care in several years. Half (two of four) of those in my year did: One went to Tillamook, an underserved area on the Oregon coast, and I to Hillsboro. 

What are internal medicine training graduates doing now? They are becoming hospitalists or, more often, specialists in cardiology, pulmonology, nephrology, oncology, and other more lucrative fields of medicine. 

Why are they not choosing primary care? As when the University of Massachusetts Medical School was established, a shortage of primary care physicians persists and probably is more severe than it was in the 1970s. Massachusetts was proactive. We are already years behind catching up. The shortage is no longer in rural areas alone. 

Christine Laine, MD, who is editor in chief of Annals of Internal Medicine and spoke at the Sommer Memorial Lectures, lives in Philadelphia. Even there, she has lost her own primary care internal medicine physician and cannot find another primary care physician (much less an internist) for herself. 

Washington State, where I live, scores a D grade for our primary care staffing statewide. 

Is there hope for the future of primary care in general? Or for the restoration of primary care internal medicine? 

Maybe. I was relieved to hear from Dr. Freer and Dr. Laine that efforts are beginning to revive the field. 

Just like internists’ patients, the potential restoration of the field will be complex and multilayered. It will require new laws, policies, residency programs, and incentives for students, including debt reduction. Administrative burdens will need to be reduced; de-corporatization and restoring healthcare leadership to those with in-depth medical training will need to be a part of the solution as well. 

Let’s all hope the new resuscitation efforts will be successful for the field of primary care in general and primary care internal medicine specifically. It will be good for healthcare and for your patients! 

Many work for large systems in which they feel powerless to effect change.

Dr. Glasser is a retired internal medicine physician in Olympia, Washington. She can be reached at [email protected].

A version of this article appeared on Medscape.com.

Editor’s Note: This piece was originally published in Dr. Glasser’s bimonthly column in The Jolt, a nonprofit online news organization based in Olympia, Washington. She was inspired to write her story after meeting Christine Laine, MD, one of three female physician presenters at the Sommer Lectures in Portland, Oregon, in May 2024. The article has been edited lightly from the original. 

Primary care internal medicine — the medical field I chose, loved, and practiced for four decades — is dead. 

The grief and shock I feel about this is personal and transpersonal. The loss of internists (internal medicine physicians) practicing primary care is a major loss to us all. 

From the 1970s to roughly 2020, there were three groups of primary care physicians: family practice, pediatricians, and internists. In their 3-year residencies (after 4 years of medical school), pediatricians trained to care for children and adolescents; internists for adults; and FPs for children, adults, and women and pregnancy. Family practitioners are the most general of the generalists, whereas the others’ training involves comprehensive care of complex patients in their age groups.

How and when the field of primary care internal medicine flourished is my story. 

I was one of those kids who was hyperfocused on science, math, and the human body. By the end of high school, I was considering medicine for my career. 

To learn more, I volunteered at the local hospital. In my typical style, I requested not to be one of those candy stripers serving drinks on the wards. Instead, they put me in the emergency department, where I would transport patients and clean the stretchers. There I was free to watch whatever was going on if I did not interfere with the staff. On my first shift, a 20-year-old drowning victim arrived by ambulance. I watched the entire unsuccessful resuscitation and as shocked and saddened as I was, I knew (in the way only a headstrong 18-year-old can) that medicine was for me. 

It was a fortuitous time to graduate as a female pre-med student. 

In 1975, our country was in the midst of the women’s movement and a national effort to train primary care physicians. I was accepted to my state medical school. The University of Massachusetts Medical School had been established a few years earlier, with its main purpose to train primary care physicians and spread them around the state (especially out of the Boston metropolitan area). The curriculum was designed to expose students to primary care from year one. I was assigned to shadow a general practice physician in inner-city Springfield who saw over 50 patients a day! The patients knew they could see and afford him, so they crammed into his waiting room until their name was called in order of their arrival. No appointments necessary. His chart notes were a few scribbled sentences. I didn’t see myself in that practice exactly, but his work ethic and dedication inspired me. 

Over half of our graduating class chose to train in primary care specialties, and most stayed in-state. It turned out to be a good bet on the part of the government of Massachusetts. 

When I applied for residency in 1980, several internal medicine programs had a focus on primary care, which was my goal. I matched at Providence St. Vincent Hospital in Portland, Oregon, and moved across the country to the Pacific Northwest, never to look back. There, my attendings were doctors like I wanted to be: primary care internists in the community, not in academia. It was the perfect choice and an excellent training program. 

In 1984, I hung out my private practice internal medicine shingle in Hillsboro, Oregon, across the street from the community hospital. My primary care internal medicine colleagues and I shared weekend calls and admitted and cared for our patients in the hospital, and when they were discharged. That is now called “continuity of care.” It was a time when we ate in the doctors’ lounge together, met in hallways, and informally consulted each other about our patients. These were called “curbside consults.” They were invaluable to our ability to provide comprehensive care to our patients in primary care, led to fewer specialty referrals, and were free. That would now be called interprofessional communication and collegiality. 

“Burnout” was not a word you heard. We were busy and happy doing what we had spent 12 years of our precious youth to prepare for. 

What did internists offer to primary care? That also is part of my story. 

When I moved to Olympia, I took a position in the women’s health clinic at the American Lake Veterans Administration Medical Center. 

We were a small group: two family practice doctors, three nurse practitioners, and me, the only internist. Many of our patients were sick and complex. Two of the nurse practitioners (NPs) asked me to take their most complicated patients. Being comfortable with complexity as an internist, I said yes. 

One of the NPs was inappropriately hired, as she had experience in women’s health. She came to me freaked out: “Oh my God, I have no idea how to manage COPD!” The other wanted simpler patients. I don’t blame them for the patient transfers. NPs typically have 3 years of training before they practice, in contrast to primary care physicians’ 8. 

Guess who made friends with the custodian, staying until 8 p.m. most evenings, and who left by 5:30 p.m. 

What was I doing in those extra hours? I was trudging through clerical, yet important, tasks my medical assistant and transcriptionist used to do in private practice. In the 30 minutes allotted for the patient, I needed to focus entirely on them and their multiple complex medical problems. 

What is lost with the death of primary care internal medicine? 

At the recent Sommer Memorial Lectures in Portland, Steven D. Freer, MD, the current director of the residency program where I trained, has not had a single of his eight annual internal medicine graduates choose primary care in several years. Half (two of four) of those in my year did: One went to Tillamook, an underserved area on the Oregon coast, and I to Hillsboro. 

What are internal medicine training graduates doing now? They are becoming hospitalists or, more often, specialists in cardiology, pulmonology, nephrology, oncology, and other more lucrative fields of medicine. 

Why are they not choosing primary care? As when the University of Massachusetts Medical School was established, a shortage of primary care physicians persists and probably is more severe than it was in the 1970s. Massachusetts was proactive. We are already years behind catching up. The shortage is no longer in rural areas alone. 

Christine Laine, MD, who is editor in chief of Annals of Internal Medicine and spoke at the Sommer Memorial Lectures, lives in Philadelphia. Even there, she has lost her own primary care internal medicine physician and cannot find another primary care physician (much less an internist) for herself. 

Washington State, where I live, scores a D grade for our primary care staffing statewide. 

Is there hope for the future of primary care in general? Or for the restoration of primary care internal medicine? 

Maybe. I was relieved to hear from Dr. Freer and Dr. Laine that efforts are beginning to revive the field. 

Just like internists’ patients, the potential restoration of the field will be complex and multilayered. It will require new laws, policies, residency programs, and incentives for students, including debt reduction. Administrative burdens will need to be reduced; de-corporatization and restoring healthcare leadership to those with in-depth medical training will need to be a part of the solution as well. 

Let’s all hope the new resuscitation efforts will be successful for the field of primary care in general and primary care internal medicine specifically. It will be good for healthcare and for your patients! 

Many work for large systems in which they feel powerless to effect change.

Dr. Glasser is a retired internal medicine physician in Olympia, Washington. She can be reached at [email protected].

A version of this article appeared on Medscape.com.

Editor’s Note: This piece was originally published in Dr. Glasser’s bimonthly column in The Jolt, a nonprofit online news organization based in Olympia, Washington. She was inspired to write her story after meeting Christine Laine, MD, one of three female physician presenters at the Sommer Lectures in Portland, Oregon, in May 2024. The article has been edited lightly from the original. 

Primary care internal medicine — the medical field I chose, loved, and practiced for four decades — is dead. 

The grief and shock I feel about this is personal and transpersonal. The loss of internists (internal medicine physicians) practicing primary care is a major loss to us all. 

From the 1970s to roughly 2020, there were three groups of primary care physicians: family practice, pediatricians, and internists. In their 3-year residencies (after 4 years of medical school), pediatricians trained to care for children and adolescents; internists for adults; and FPs for children, adults, and women and pregnancy. Family practitioners are the most general of the generalists, whereas the others’ training involves comprehensive care of complex patients in their age groups.

How and when the field of primary care internal medicine flourished is my story. 

I was one of those kids who was hyperfocused on science, math, and the human body. By the end of high school, I was considering medicine for my career. 

To learn more, I volunteered at the local hospital. In my typical style, I requested not to be one of those candy stripers serving drinks on the wards. Instead, they put me in the emergency department, where I would transport patients and clean the stretchers. There I was free to watch whatever was going on if I did not interfere with the staff. On my first shift, a 20-year-old drowning victim arrived by ambulance. I watched the entire unsuccessful resuscitation and as shocked and saddened as I was, I knew (in the way only a headstrong 18-year-old can) that medicine was for me. 

It was a fortuitous time to graduate as a female pre-med student. 

In 1975, our country was in the midst of the women’s movement and a national effort to train primary care physicians. I was accepted to my state medical school. The University of Massachusetts Medical School had been established a few years earlier, with its main purpose to train primary care physicians and spread them around the state (especially out of the Boston metropolitan area). The curriculum was designed to expose students to primary care from year one. I was assigned to shadow a general practice physician in inner-city Springfield who saw over 50 patients a day! The patients knew they could see and afford him, so they crammed into his waiting room until their name was called in order of their arrival. No appointments necessary. His chart notes were a few scribbled sentences. I didn’t see myself in that practice exactly, but his work ethic and dedication inspired me. 

Over half of our graduating class chose to train in primary care specialties, and most stayed in-state. It turned out to be a good bet on the part of the government of Massachusetts. 

When I applied for residency in 1980, several internal medicine programs had a focus on primary care, which was my goal. I matched at Providence St. Vincent Hospital in Portland, Oregon, and moved across the country to the Pacific Northwest, never to look back. There, my attendings were doctors like I wanted to be: primary care internists in the community, not in academia. It was the perfect choice and an excellent training program. 

In 1984, I hung out my private practice internal medicine shingle in Hillsboro, Oregon, across the street from the community hospital. My primary care internal medicine colleagues and I shared weekend calls and admitted and cared for our patients in the hospital, and when they were discharged. That is now called “continuity of care.” It was a time when we ate in the doctors’ lounge together, met in hallways, and informally consulted each other about our patients. These were called “curbside consults.” They were invaluable to our ability to provide comprehensive care to our patients in primary care, led to fewer specialty referrals, and were free. That would now be called interprofessional communication and collegiality. 

“Burnout” was not a word you heard. We were busy and happy doing what we had spent 12 years of our precious youth to prepare for. 

What did internists offer to primary care? That also is part of my story. 

When I moved to Olympia, I took a position in the women’s health clinic at the American Lake Veterans Administration Medical Center. 

We were a small group: two family practice doctors, three nurse practitioners, and me, the only internist. Many of our patients were sick and complex. Two of the nurse practitioners (NPs) asked me to take their most complicated patients. Being comfortable with complexity as an internist, I said yes. 

One of the NPs was inappropriately hired, as she had experience in women’s health. She came to me freaked out: “Oh my God, I have no idea how to manage COPD!” The other wanted simpler patients. I don’t blame them for the patient transfers. NPs typically have 3 years of training before they practice, in contrast to primary care physicians’ 8. 

Guess who made friends with the custodian, staying until 8 p.m. most evenings, and who left by 5:30 p.m. 

What was I doing in those extra hours? I was trudging through clerical, yet important, tasks my medical assistant and transcriptionist used to do in private practice. In the 30 minutes allotted for the patient, I needed to focus entirely on them and their multiple complex medical problems. 

What is lost with the death of primary care internal medicine? 

At the recent Sommer Memorial Lectures in Portland, Steven D. Freer, MD, the current director of the residency program where I trained, has not had a single of his eight annual internal medicine graduates choose primary care in several years. Half (two of four) of those in my year did: One went to Tillamook, an underserved area on the Oregon coast, and I to Hillsboro. 

What are internal medicine training graduates doing now? They are becoming hospitalists or, more often, specialists in cardiology, pulmonology, nephrology, oncology, and other more lucrative fields of medicine. 

Why are they not choosing primary care? As when the University of Massachusetts Medical School was established, a shortage of primary care physicians persists and probably is more severe than it was in the 1970s. Massachusetts was proactive. We are already years behind catching up. The shortage is no longer in rural areas alone. 

Christine Laine, MD, who is editor in chief of Annals of Internal Medicine and spoke at the Sommer Memorial Lectures, lives in Philadelphia. Even there, she has lost her own primary care internal medicine physician and cannot find another primary care physician (much less an internist) for herself. 

Washington State, where I live, scores a D grade for our primary care staffing statewide. 

Is there hope for the future of primary care in general? Or for the restoration of primary care internal medicine? 

Maybe. I was relieved to hear from Dr. Freer and Dr. Laine that efforts are beginning to revive the field. 

Just like internists’ patients, the potential restoration of the field will be complex and multilayered. It will require new laws, policies, residency programs, and incentives for students, including debt reduction. Administrative burdens will need to be reduced; de-corporatization and restoring healthcare leadership to those with in-depth medical training will need to be a part of the solution as well. 

Let’s all hope the new resuscitation efforts will be successful for the field of primary care in general and primary care internal medicine specifically. It will be good for healthcare and for your patients! 

Many work for large systems in which they feel powerless to effect change.

Dr. Glasser is a retired internal medicine physician in Olympia, Washington. She can be reached at [email protected].

A version of this article appeared on Medscape.com.

The link between influenza infection and a rise in short-term risk for acute myocardial infarction (MI) has been reaffirmed in a new study, which showed the risk appears to be particularly elevated in individuals with no prior diagnosis of coronary artery disease.

“Our study results confirm previous findings of an increased risk of MI during or immediately following acute severe flu infection and raises the idea of giving prophylactic anticoagulation to these patients,” reported Patricia Bruijning-Verhagen, MD, University Medical Center Utrecht, the Netherlands, who is the senior author of the study, which was published online in NEJM Evidence.

“Our results also change things — in that we now know the focus should be on people without a history of cardiovascular disease — and highlight the importance of flu vaccination, particularly for this group,” she pointed out.

The observational, self-controlled, case-series study linked laboratory records on respiratory virus polymerase chain reaction (PCR) testing from 16 laboratories in the Netherlands to national mortality, hospitalization, medication, and administrative registries. Investigators compared the incidence of acute MI during the risk period — days 1-7 after influenza infection — with that in the control period — 1 year before and 51 weeks after the risk period.

The researchers found 26,221 positive PCR tests for influenza, constituting 23,405 unique influenza illness episodes. Of the episodes of acute MI occurring in the year before or the year after confirmed influenza infection and included in the analysis, 25 cases of acute MI occurred on days 1-7 after influenza infection and 394 occurred during the control period.

The adjusted relative incidence of acute MI during the risk period compared with during the control period was 6.16 (95% CI, 4.11-9.24).

The relative incidence of acute MI in individuals with no previous hospitalization for coronary artery disease was 16.60 (95% CI, 10.45-26.37); for those with a previous hospital admission for coronary artery disease, the relative incidence was 1.43 (95% CI, 0.53-3.84).

A temporary increase in the risk for MI has been reported in several previous studies. A 2018 Canadian study by Kwong and colleagues showed a sixfold elevation in the risk for acute MI after influenza infection, which was subsequently confirmed in studies from the United States, Denmark, and Scotland.

In their study, Dr. Bruijning-Verhagen and colleagues aimed to further quantify the association between laboratory-confirmed influenza infection and acute MI and to look at specific subgroups that might have the potential to guide a more individualized approach to prevention.

They replicated the Canadian study using a self-controlled case-series design that corrects for time-invariant confounding and found very similar results: A sixfold increase in the risk for acute MI in the first week after laboratory-confirmed influenza infection.

“The fact that we found similar results to Kwong et al. strengthens the finding that acute flu infection is linked to increased MI risk. This is becoming more and more clear now. It also shows that this effect is generalizable to other countries,” Dr. Bruijning-Verhagen said.
 

People Without Cardiovascular Disease at Highest Risk 

The researchers moved the field ahead by also looking at whether there is a difference in risk between individuals with flu who already had cardiovascular disease and those who did not.

“Most previous studies of flu and MI didn’t stratify between individuals with and without existing cardiovascular disease. And the ones that did look at this weren’t able to show a difference with any confidence,” Dr. Bruijning-Verhagen explained. “There have been suggestions before of a higher risk of MI in individuals with acute flu infection who do not have existing known cardiovascular disease, but this was uncertain.” 

The current study showed a large difference between the two groups, with a much higher risk for MI linked to flu in individuals without any known cardiovascular disease.

“You would think patients with existing cardiovascular disease would be more at risk of MI with flu infection, so this was a surprising result,” reported Dr. Bruijning-Verhagen. “But I think the result is real. The difference between the two groups was too big for it not to be.”

Influenza can cause a hypercoagulable state, systemic inflammation, and vascular changes that can trigger MI, even in patients not thought to be at risk before, she pointed out. And this is on top of high cardiac demands because of the acute infection.

Patients who already have cardiovascular disease may be protected to some extent by the cardiovascular medications that they are taking, she added.

These results could justify the use of short-term anticoagulation in patients with severe flu infection to cover the high-risk period, Dr. Bruijning-Verhagen suggested. “We give short-term anticoagulation as prophylaxis to patients when they have surgery. This would not be that different. But obviously, this approach would have to be tested.”

Clinical studies looking at such a strategy are currently underway.
 

‘Get Your Flu Shot’

The results reinforce the need for anyone who is eligible to get the flu vaccine. “These results should give extra weight to the message to get your flu shot,” she said. “Even if you do not consider yourself someone at risk of cardiovascular disease, our study shows that you can still have an increased risk of MI as a result of severe flu infection.” 

In many countries, the flu vaccine is recommended for everyone older than 60 or 65 years and for younger people with a history of cardiovascular disease. Data on flu vaccination was not available in the current study, but the average age of patients infected with flu was 74 years, so most patients would have been eligible to receive vaccination, she said.

In the Netherlands where the research took place, flu vaccination is recommended for everyone older than 60 years, and uptake is about 60%.

“There will be some cases in younger people, but the number needed to vaccinate to show a benefit would be much larger in younger people, and that may not be cost-effective,” reported Dr. Bruijning-Verhagen.

Flu vaccination policies vary across the world, with many factors being taken into account; some countries already advocate for universal vaccination every year.
 

Extend Flu Vaccination to Prevent ACS 

This study “provides further impetus to policy makers to review and update guidelines on prevention of acute coronary syndromes,” Raina MacIntyre, MBBS, Zubair Akhtar, MPH, and Aye Moa, MPH, University of New South Wales, Sydney, Australia, wrote in an accompanying editorial.

“Although vaccination to prevent influenza is recommended and funded in many countries for people 65 years of age and older, the additional benefits of prevention of ACS [acute coronary syndromes] have not been adopted universally into policy and practice nor have recommendations considered prevention of ACS in people 50-64 years of age,” they added.

“Vaccination is low-hanging fruit for people at risk of acute myocardial infarction who have not yet had a first event. It is time that we viewed influenza vaccine as a routine preventive measure for ACS and for people with coronary artery disease risk factors, along with statins, blood pressure control, and smoking cessation,” she explained.

The question of whether the link found between elevated MI risk and severe flu infection might be the result of MI being more likely to be detected in patients hospitalized with severe flu infection, who would undergo a thorough workup, was raised in a second editorial by Lori E. Dodd, PhD, National Institute of Allergy and Infectious Diseases, National Institutes of Health, Bethesda, Maryland.

“I think this would be very unlikely to account for the large effect we found,” responded Dr. Bruijning-Verhagen. “There may be the occasional silent MI that gets missed in patients who are not hospitalized, but, in general, acute MI is not something that goes undetected.”

A version of this article appeared on Medscape.com.

The link between influenza infection and a rise in short-term risk for acute myocardial infarction (MI) has been reaffirmed in a new study, which showed the risk appears to be particularly elevated in individuals with no prior diagnosis of coronary artery disease.

“Our study results confirm previous findings of an increased risk of MI during or immediately following acute severe flu infection and raises the idea of giving prophylactic anticoagulation to these patients,” reported Patricia Bruijning-Verhagen, MD, University Medical Center Utrecht, the Netherlands, who is the senior author of the study, which was published online in NEJM Evidence.

“Our results also change things — in that we now know the focus should be on people without a history of cardiovascular disease — and highlight the importance of flu vaccination, particularly for this group,” she pointed out.

The observational, self-controlled, case-series study linked laboratory records on respiratory virus polymerase chain reaction (PCR) testing from 16 laboratories in the Netherlands to national mortality, hospitalization, medication, and administrative registries. Investigators compared the incidence of acute MI during the risk period — days 1-7 after influenza infection — with that in the control period — 1 year before and 51 weeks after the risk period.

The researchers found 26,221 positive PCR tests for influenza, constituting 23,405 unique influenza illness episodes. Of the episodes of acute MI occurring in the year before or the year after confirmed influenza infection and included in the analysis, 25 cases of acute MI occurred on days 1-7 after influenza infection and 394 occurred during the control period.

The adjusted relative incidence of acute MI during the risk period compared with during the control period was 6.16 (95% CI, 4.11-9.24).

The relative incidence of acute MI in individuals with no previous hospitalization for coronary artery disease was 16.60 (95% CI, 10.45-26.37); for those with a previous hospital admission for coronary artery disease, the relative incidence was 1.43 (95% CI, 0.53-3.84).

A temporary increase in the risk for MI has been reported in several previous studies. A 2018 Canadian study by Kwong and colleagues showed a sixfold elevation in the risk for acute MI after influenza infection, which was subsequently confirmed in studies from the United States, Denmark, and Scotland.

In their study, Dr. Bruijning-Verhagen and colleagues aimed to further quantify the association between laboratory-confirmed influenza infection and acute MI and to look at specific subgroups that might have the potential to guide a more individualized approach to prevention.

They replicated the Canadian study using a self-controlled case-series design that corrects for time-invariant confounding and found very similar results: A sixfold increase in the risk for acute MI in the first week after laboratory-confirmed influenza infection.

“The fact that we found similar results to Kwong et al. strengthens the finding that acute flu infection is linked to increased MI risk. This is becoming more and more clear now. It also shows that this effect is generalizable to other countries,” Dr. Bruijning-Verhagen said.
 

People Without Cardiovascular Disease at Highest Risk 

The researchers moved the field ahead by also looking at whether there is a difference in risk between individuals with flu who already had cardiovascular disease and those who did not.

“Most previous studies of flu and MI didn’t stratify between individuals with and without existing cardiovascular disease. And the ones that did look at this weren’t able to show a difference with any confidence,” Dr. Bruijning-Verhagen explained. “There have been suggestions before of a higher risk of MI in individuals with acute flu infection who do not have existing known cardiovascular disease, but this was uncertain.” 

The current study showed a large difference between the two groups, with a much higher risk for MI linked to flu in individuals without any known cardiovascular disease.

“You would think patients with existing cardiovascular disease would be more at risk of MI with flu infection, so this was a surprising result,” reported Dr. Bruijning-Verhagen. “But I think the result is real. The difference between the two groups was too big for it not to be.”

Influenza can cause a hypercoagulable state, systemic inflammation, and vascular changes that can trigger MI, even in patients not thought to be at risk before, she pointed out. And this is on top of high cardiac demands because of the acute infection.

Patients who already have cardiovascular disease may be protected to some extent by the cardiovascular medications that they are taking, she added.

These results could justify the use of short-term anticoagulation in patients with severe flu infection to cover the high-risk period, Dr. Bruijning-Verhagen suggested. “We give short-term anticoagulation as prophylaxis to patients when they have surgery. This would not be that different. But obviously, this approach would have to be tested.”

Clinical studies looking at such a strategy are currently underway.
 

‘Get Your Flu Shot’

The results reinforce the need for anyone who is eligible to get the flu vaccine. “These results should give extra weight to the message to get your flu shot,” she said. “Even if you do not consider yourself someone at risk of cardiovascular disease, our study shows that you can still have an increased risk of MI as a result of severe flu infection.” 

In many countries, the flu vaccine is recommended for everyone older than 60 or 65 years and for younger people with a history of cardiovascular disease. Data on flu vaccination was not available in the current study, but the average age of patients infected with flu was 74 years, so most patients would have been eligible to receive vaccination, she said.

In the Netherlands where the research took place, flu vaccination is recommended for everyone older than 60 years, and uptake is about 60%.

“There will be some cases in younger people, but the number needed to vaccinate to show a benefit would be much larger in younger people, and that may not be cost-effective,” reported Dr. Bruijning-Verhagen.

Flu vaccination policies vary across the world, with many factors being taken into account; some countries already advocate for universal vaccination every year.
 

Extend Flu Vaccination to Prevent ACS 

This study “provides further impetus to policy makers to review and update guidelines on prevention of acute coronary syndromes,” Raina MacIntyre, MBBS, Zubair Akhtar, MPH, and Aye Moa, MPH, University of New South Wales, Sydney, Australia, wrote in an accompanying editorial.

“Although vaccination to prevent influenza is recommended and funded in many countries for people 65 years of age and older, the additional benefits of prevention of ACS [acute coronary syndromes] have not been adopted universally into policy and practice nor have recommendations considered prevention of ACS in people 50-64 years of age,” they added.

“Vaccination is low-hanging fruit for people at risk of acute myocardial infarction who have not yet had a first event. It is time that we viewed influenza vaccine as a routine preventive measure for ACS and for people with coronary artery disease risk factors, along with statins, blood pressure control, and smoking cessation,” she explained.

The question of whether the link found between elevated MI risk and severe flu infection might be the result of MI being more likely to be detected in patients hospitalized with severe flu infection, who would undergo a thorough workup, was raised in a second editorial by Lori E. Dodd, PhD, National Institute of Allergy and Infectious Diseases, National Institutes of Health, Bethesda, Maryland.

“I think this would be very unlikely to account for the large effect we found,” responded Dr. Bruijning-Verhagen. “There may be the occasional silent MI that gets missed in patients who are not hospitalized, but, in general, acute MI is not something that goes undetected.”

A version of this article appeared on Medscape.com.

The link between influenza infection and a rise in short-term risk for acute myocardial infarction (MI) has been reaffirmed in a new study, which showed the risk appears to be particularly elevated in individuals with no prior diagnosis of coronary artery disease.

“Our study results confirm previous findings of an increased risk of MI during or immediately following acute severe flu infection and raises the idea of giving prophylactic anticoagulation to these patients,” reported Patricia Bruijning-Verhagen, MD, University Medical Center Utrecht, the Netherlands, who is the senior author of the study, which was published online in NEJM Evidence.

“Our results also change things — in that we now know the focus should be on people without a history of cardiovascular disease — and highlight the importance of flu vaccination, particularly for this group,” she pointed out.

The observational, self-controlled, case-series study linked laboratory records on respiratory virus polymerase chain reaction (PCR) testing from 16 laboratories in the Netherlands to national mortality, hospitalization, medication, and administrative registries. Investigators compared the incidence of acute MI during the risk period — days 1-7 after influenza infection — with that in the control period — 1 year before and 51 weeks after the risk period.

The researchers found 26,221 positive PCR tests for influenza, constituting 23,405 unique influenza illness episodes. Of the episodes of acute MI occurring in the year before or the year after confirmed influenza infection and included in the analysis, 25 cases of acute MI occurred on days 1-7 after influenza infection and 394 occurred during the control period.

The adjusted relative incidence of acute MI during the risk period compared with during the control period was 6.16 (95% CI, 4.11-9.24).

The relative incidence of acute MI in individuals with no previous hospitalization for coronary artery disease was 16.60 (95% CI, 10.45-26.37); for those with a previous hospital admission for coronary artery disease, the relative incidence was 1.43 (95% CI, 0.53-3.84).

A temporary increase in the risk for MI has been reported in several previous studies. A 2018 Canadian study by Kwong and colleagues showed a sixfold elevation in the risk for acute MI after influenza infection, which was subsequently confirmed in studies from the United States, Denmark, and Scotland.

In their study, Dr. Bruijning-Verhagen and colleagues aimed to further quantify the association between laboratory-confirmed influenza infection and acute MI and to look at specific subgroups that might have the potential to guide a more individualized approach to prevention.

They replicated the Canadian study using a self-controlled case-series design that corrects for time-invariant confounding and found very similar results: A sixfold increase in the risk for acute MI in the first week after laboratory-confirmed influenza infection.

“The fact that we found similar results to Kwong et al. strengthens the finding that acute flu infection is linked to increased MI risk. This is becoming more and more clear now. It also shows that this effect is generalizable to other countries,” Dr. Bruijning-Verhagen said.
 

People Without Cardiovascular Disease at Highest Risk 

The researchers moved the field ahead by also looking at whether there is a difference in risk between individuals with flu who already had cardiovascular disease and those who did not.

“Most previous studies of flu and MI didn’t stratify between individuals with and without existing cardiovascular disease. And the ones that did look at this weren’t able to show a difference with any confidence,” Dr. Bruijning-Verhagen explained. “There have been suggestions before of a higher risk of MI in individuals with acute flu infection who do not have existing known cardiovascular disease, but this was uncertain.” 

The current study showed a large difference between the two groups, with a much higher risk for MI linked to flu in individuals without any known cardiovascular disease.

“You would think patients with existing cardiovascular disease would be more at risk of MI with flu infection, so this was a surprising result,” reported Dr. Bruijning-Verhagen. “But I think the result is real. The difference between the two groups was too big for it not to be.”

Influenza can cause a hypercoagulable state, systemic inflammation, and vascular changes that can trigger MI, even in patients not thought to be at risk before, she pointed out. And this is on top of high cardiac demands because of the acute infection.

Patients who already have cardiovascular disease may be protected to some extent by the cardiovascular medications that they are taking, she added.

These results could justify the use of short-term anticoagulation in patients with severe flu infection to cover the high-risk period, Dr. Bruijning-Verhagen suggested. “We give short-term anticoagulation as prophylaxis to patients when they have surgery. This would not be that different. But obviously, this approach would have to be tested.”

Clinical studies looking at such a strategy are currently underway.
 

‘Get Your Flu Shot’

The results reinforce the need for anyone who is eligible to get the flu vaccine. “These results should give extra weight to the message to get your flu shot,” she said. “Even if you do not consider yourself someone at risk of cardiovascular disease, our study shows that you can still have an increased risk of MI as a result of severe flu infection.” 

In many countries, the flu vaccine is recommended for everyone older than 60 or 65 years and for younger people with a history of cardiovascular disease. Data on flu vaccination was not available in the current study, but the average age of patients infected with flu was 74 years, so most patients would have been eligible to receive vaccination, she said.

In the Netherlands where the research took place, flu vaccination is recommended for everyone older than 60 years, and uptake is about 60%.

“There will be some cases in younger people, but the number needed to vaccinate to show a benefit would be much larger in younger people, and that may not be cost-effective,” reported Dr. Bruijning-Verhagen.

Flu vaccination policies vary across the world, with many factors being taken into account; some countries already advocate for universal vaccination every year.
 

Extend Flu Vaccination to Prevent ACS 

This study “provides further impetus to policy makers to review and update guidelines on prevention of acute coronary syndromes,” Raina MacIntyre, MBBS, Zubair Akhtar, MPH, and Aye Moa, MPH, University of New South Wales, Sydney, Australia, wrote in an accompanying editorial.

“Although vaccination to prevent influenza is recommended and funded in many countries for people 65 years of age and older, the additional benefits of prevention of ACS [acute coronary syndromes] have not been adopted universally into policy and practice nor have recommendations considered prevention of ACS in people 50-64 years of age,” they added.

“Vaccination is low-hanging fruit for people at risk of acute myocardial infarction who have not yet had a first event. It is time that we viewed influenza vaccine as a routine preventive measure for ACS and for people with coronary artery disease risk factors, along with statins, blood pressure control, and smoking cessation,” she explained.

The question of whether the link found between elevated MI risk and severe flu infection might be the result of MI being more likely to be detected in patients hospitalized with severe flu infection, who would undergo a thorough workup, was raised in a second editorial by Lori E. Dodd, PhD, National Institute of Allergy and Infectious Diseases, National Institutes of Health, Bethesda, Maryland.

“I think this would be very unlikely to account for the large effect we found,” responded Dr. Bruijning-Verhagen. “There may be the occasional silent MI that gets missed in patients who are not hospitalized, but, in general, acute MI is not something that goes undetected.”

A version of this article appeared on Medscape.com.

Almost 1 in 10 pregnant people infected with COVID-19 end up developing long COVID, according to a study published in Obstetrics & Gynecology.

Researchers at University of Utah Health looked at the medical records of more than 1500 people who got COVID-19 while pregnant and checked their self-reported symptoms at least 6 months after infection, according to a news release from the school.

The scientists discovered that 9.3% of those people reported long COVID symptoms, such as fatigue and issues in their gut. 

To make sure those long COVID symptoms were not actually symptoms of pregnancy, the research team did a second analysis of people who reported symptoms more than 12 weeks after giving birth. The risk of long COVID was about the same as in the first analysis.

“It was surprising to me that the prevalence was that high,” Torri D. Metz, MD, vice chair for research of obstetrics and gynecology at the school and co-leader of the study, said in the release. “This is something that does continue to affect otherwise reasonably healthy and young populations.”

The school said this is the first study to look at long COVID risks in pregnant people. Previous research found other dangers for pregnant people who get COVID, such as a higher chance of hospitalization or death, or complications such as preterm birth.

In the general population, research shows that 10%-20% of people who get COVID develop long COVID.

Dr. Metz said healthcare providers need to remain alert about long COVID, including in pregnant people.

“We need to have this on our radar as we’re seeing patients. It’s something we really don’t want to miss. And we want to get people referred to appropriate specialists who treat long COVID,” she said.
 

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

Almost 1 in 10 pregnant people infected with COVID-19 end up developing long COVID, according to a study published in Obstetrics & Gynecology.

Researchers at University of Utah Health looked at the medical records of more than 1500 people who got COVID-19 while pregnant and checked their self-reported symptoms at least 6 months after infection, according to a news release from the school.

The scientists discovered that 9.3% of those people reported long COVID symptoms, such as fatigue and issues in their gut. 

To make sure those long COVID symptoms were not actually symptoms of pregnancy, the research team did a second analysis of people who reported symptoms more than 12 weeks after giving birth. The risk of long COVID was about the same as in the first analysis.

“It was surprising to me that the prevalence was that high,” Torri D. Metz, MD, vice chair for research of obstetrics and gynecology at the school and co-leader of the study, said in the release. “This is something that does continue to affect otherwise reasonably healthy and young populations.”

The school said this is the first study to look at long COVID risks in pregnant people. Previous research found other dangers for pregnant people who get COVID, such as a higher chance of hospitalization or death, or complications such as preterm birth.

In the general population, research shows that 10%-20% of people who get COVID develop long COVID.

Dr. Metz said healthcare providers need to remain alert about long COVID, including in pregnant people.

“We need to have this on our radar as we’re seeing patients. It’s something we really don’t want to miss. And we want to get people referred to appropriate specialists who treat long COVID,” she said.
 

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

Almost 1 in 10 pregnant people infected with COVID-19 end up developing long COVID, according to a study published in Obstetrics & Gynecology.

Researchers at University of Utah Health looked at the medical records of more than 1500 people who got COVID-19 while pregnant and checked their self-reported symptoms at least 6 months after infection, according to a news release from the school.

The scientists discovered that 9.3% of those people reported long COVID symptoms, such as fatigue and issues in their gut. 

To make sure those long COVID symptoms were not actually symptoms of pregnancy, the research team did a second analysis of people who reported symptoms more than 12 weeks after giving birth. The risk of long COVID was about the same as in the first analysis.

“It was surprising to me that the prevalence was that high,” Torri D. Metz, MD, vice chair for research of obstetrics and gynecology at the school and co-leader of the study, said in the release. “This is something that does continue to affect otherwise reasonably healthy and young populations.”

The school said this is the first study to look at long COVID risks in pregnant people. Previous research found other dangers for pregnant people who get COVID, such as a higher chance of hospitalization or death, or complications such as preterm birth.

In the general population, research shows that 10%-20% of people who get COVID develop long COVID.

Dr. Metz said healthcare providers need to remain alert about long COVID, including in pregnant people.

“We need to have this on our radar as we’re seeing patients. It’s something we really don’t want to miss. And we want to get people referred to appropriate specialists who treat long COVID,” she said.
 

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

This transcript has been edited for clarity. 

ACIP, the CDC’s Advisory Committee on Immunization Practices, met for 3 days in June. New vaccines and new recommendations for respiratory syncytial virus (RSV), flu, COVID, and a new pneumococcal vaccine were revealed.

RSV Protection

We’ll begin with RSV vaccines for adults aged 60 or older. For this group, shared clinical decision-making is out; it no longer applies. New, more specific recommendations from ACIP for RSV vaccines are both age based and risk based. The age-based recommendation applies to those aged 75 or older, who should receive a single RSV vaccine dose. If they have already received a dose under the old recommendation, they don’t need another one, at least for now.

The risk-based recommendation applies to adults from age 60 up to 75, but only for those with risk factors for severe RSV. These risk factors include lung disease, heart disease, immunocompromise, diabetes, obesity with a BMI of 40 or more, neurologic conditions, neuromuscular conditions, chronic kidney disease, liver disorders, hematologic disorders, frailty, and living in a nursing home or other long-term care facility. Those aged 60-75 with these risk factors should receive the RSV vaccine, and those without them should not receive it. The best time to get the RSV vaccine is late summer, but early fall administration with other adult vaccines is allowed and is acceptable.

Vaccine safety concerns were top of mind as ACIP members began their deliberations. Possible safety concerns for RSV vaccines have been detected for Guillain-Barré syndrome, atrial fibrillation, and idiopathic thrombocytopenic purpura. Safety surveillance updates are still interim and inconclusive. These signals still need further study and clarification. 

Two RSV vaccines have been on the market: one by Pfizer, called Abrysvo, which does not contain an adjuvant; and another one by GSK, called Arexvy, which does contain an adjuvant. With the recent FDA approval of Moderna’s new mRNA RSV vaccine, mRESVIA, there are now three RSV vaccines licensed for those 60 or older. Arexvy is now FDA approved for adults in their 50s. That just happened in early June, but ACIP doesn’t currently recommend it for this fifty-something age group, even for those at high risk for severe RSV disease. This may change with greater clarification of potential vaccine safety concerns.

There is also news about protecting babies from RSV. RSV is the most common cause of hospitalization for infants in the United States, and most hospitalizations for RSV are in healthy, full-term infants. We now have two ways to protect babies: a dose of RSV vaccine given to mom, or a dose of the long-acting monoclonal antibody nirsevimab given to the baby. ACIP clarified that those who received a dose of maternal RSV vaccine during a previous pregnancy are not recommended to receive additional doses during future pregnancies, but infants born to those who were vaccinated for RSV during a prior pregnancy can receive nirsevimab, which is recommended for infants up to 8 months of age during their first RSV season, and for high-risk infants and toddlers aged 8-19 months during their second RSV season.

Last RSV season, supplies of nirsevimab were limited and doses had to be prioritized. No supply problems are anticipated for the upcoming season. A study published in March showed that nirsevimab was 90% effective at preventing RSV-associated hospitalization for infants in their first RSV season.
 

COVID

Here’s what’s new for COVID vaccines. A new-formula COVID vaccine will be ready for fall. ACIP voted unanimously to recommend a dose of the updated 2024-2025 COVID vaccine for everyone aged 6 months or older. This is a universal recommendation, just like the one we have for flu. But understand that even though COVID has waned, it’s still more deadly than flu. Most Americans now have some immunity against COVID, but this immunity wanes with time, and it also wanes as the virus keeps changing. These updated vaccines provide an incremental boost to our immunity for the new formula for fall. FDA has directed manufacturers to use a monovalent JN.1 lineage formula, with a preference for the KP.2 strain.

Older adults (aged 75 or older) and children under 6 months old are hit hardest by COVID. The littlest ones are too young to be vaccinated, but they can get protection from maternal vaccination. The uptake for last year’s COVID vaccine has been disappointing. Only 22.5% of adults and 14% of children received a dose of the updated shot. Focus-group discussions highlight the importance of a physician recommendation. Adults and children who receive a healthcare provider’s recommendation to get the COVID vaccine are more likely to get vaccinated. 
 

Pneumococcal Vaccines

On June 17, 2024, a new pneumococcal vaccine, PCV21, was FDA approved for those aged 18 or older under an accelerated-approval pathway. ACIP voted to keep it simple and recommends PCV21 as an option for adults aged 19 or older who currently have an indication to receive a dose of PCV. This new PCV21 vaccine is indicated for prevention of both invasive pneumococcal disease (IPD) and pneumococcal pneumonia. Its brand name is Capvaxive and it’s made by Merck. IPD includes bacteremia, pneumonia, pneumococcal bacteremia, and meningitis.

There are two basic types of pneumococcal vaccines: polysaccharide vaccines (PPSV), which do not produce memory B cells; and PCV conjugate vaccines, which do trigger memory B-cell production and therefore induce greater long-term immunity. PCV21 covers 11 unique serotypes not in PCV20. This is important because many cases of adult disease are caused by subtypes not covered by other FDA-approved pneumococcal vaccines. PCV21 has greater coverage of the serotypes that cause invasive disease in adults as compared with PCV20. PCV20 covers up to 58% of those strains, while PCV21 covers up to 84% of strains responsible for invasive disease in adults. But there’s one serotype missing in PCV21, which may limit the groups who receive it. PCV21 does not cover serotype 4, a major cause of IPD in certain populations. Adults experiencing homelessness are 100-300 times more likely to develop IPD due to serotype 4. So are adults in Alaska, especially Alaska Natives. They have an 88-fold increase in serotype 4 invasive disease. Serotype 4 is covered by other pneumococcal vaccines, so for these patients, PCV20 is likely a better high-valent conjugate vaccine option than PCV21.
 

Flu Vaccines

What’s new for flu? Everyone aged 6 months or older needs a seasonal flu vaccination every year. That’s not new, but there are two new things coming this fall: (1) The seasonal flu vaccine is going trivalent. FDA has removed the Yamagata flu B strain because it no longer appears to be circulating. (2) ACIP made a special off-label recommendation to boost flu protection for solid organ transplant recipients ages 18-64 who are on immunosuppressive medications. These high-risk patients now have the off-label option of receiving one of the higher-dose flu vaccines, including high-dose and adjuvanted flu vaccines, which are FDA approved only for those 65 or older.

Sandra Adamson Fryhofer, Adjunct Clinical Associate Professor of Medicine, Emory University School of Medicine, Atlanta, Georgia, has disclosed the following relevant financial relationships: Serve(d) as a director, officer, partner, employee, advisor, consultant, or trustee for American Medical Association; Medical Association of Atlanta; ACIP liaison. Received income in an amount equal to or greater than $250 from American College of Physicians; Medscape; American Medical Association.

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

This transcript has been edited for clarity. 

ACIP, the CDC’s Advisory Committee on Immunization Practices, met for 3 days in June. New vaccines and new recommendations for respiratory syncytial virus (RSV), flu, COVID, and a new pneumococcal vaccine were revealed.

RSV Protection

We’ll begin with RSV vaccines for adults aged 60 or older. For this group, shared clinical decision-making is out; it no longer applies. New, more specific recommendations from ACIP for RSV vaccines are both age based and risk based. The age-based recommendation applies to those aged 75 or older, who should receive a single RSV vaccine dose. If they have already received a dose under the old recommendation, they don’t need another one, at least for now.

The risk-based recommendation applies to adults from age 60 up to 75, but only for those with risk factors for severe RSV. These risk factors include lung disease, heart disease, immunocompromise, diabetes, obesity with a BMI of 40 or more, neurologic conditions, neuromuscular conditions, chronic kidney disease, liver disorders, hematologic disorders, frailty, and living in a nursing home or other long-term care facility. Those aged 60-75 with these risk factors should receive the RSV vaccine, and those without them should not receive it. The best time to get the RSV vaccine is late summer, but early fall administration with other adult vaccines is allowed and is acceptable.

Vaccine safety concerns were top of mind as ACIP members began their deliberations. Possible safety concerns for RSV vaccines have been detected for Guillain-Barré syndrome, atrial fibrillation, and idiopathic thrombocytopenic purpura. Safety surveillance updates are still interim and inconclusive. These signals still need further study and clarification. 

Two RSV vaccines have been on the market: one by Pfizer, called Abrysvo, which does not contain an adjuvant; and another one by GSK, called Arexvy, which does contain an adjuvant. With the recent FDA approval of Moderna’s new mRNA RSV vaccine, mRESVIA, there are now three RSV vaccines licensed for those 60 or older. Arexvy is now FDA approved for adults in their 50s. That just happened in early June, but ACIP doesn’t currently recommend it for this fifty-something age group, even for those at high risk for severe RSV disease. This may change with greater clarification of potential vaccine safety concerns.

There is also news about protecting babies from RSV. RSV is the most common cause of hospitalization for infants in the United States, and most hospitalizations for RSV are in healthy, full-term infants. We now have two ways to protect babies: a dose of RSV vaccine given to mom, or a dose of the long-acting monoclonal antibody nirsevimab given to the baby. ACIP clarified that those who received a dose of maternal RSV vaccine during a previous pregnancy are not recommended to receive additional doses during future pregnancies, but infants born to those who were vaccinated for RSV during a prior pregnancy can receive nirsevimab, which is recommended for infants up to 8 months of age during their first RSV season, and for high-risk infants and toddlers aged 8-19 months during their second RSV season.

Last RSV season, supplies of nirsevimab were limited and doses had to be prioritized. No supply problems are anticipated for the upcoming season. A study published in March showed that nirsevimab was 90% effective at preventing RSV-associated hospitalization for infants in their first RSV season.
 

COVID

Here’s what’s new for COVID vaccines. A new-formula COVID vaccine will be ready for fall. ACIP voted unanimously to recommend a dose of the updated 2024-2025 COVID vaccine for everyone aged 6 months or older. This is a universal recommendation, just like the one we have for flu. But understand that even though COVID has waned, it’s still more deadly than flu. Most Americans now have some immunity against COVID, but this immunity wanes with time, and it also wanes as the virus keeps changing. These updated vaccines provide an incremental boost to our immunity for the new formula for fall. FDA has directed manufacturers to use a monovalent JN.1 lineage formula, with a preference for the KP.2 strain.

Older adults (aged 75 or older) and children under 6 months old are hit hardest by COVID. The littlest ones are too young to be vaccinated, but they can get protection from maternal vaccination. The uptake for last year’s COVID vaccine has been disappointing. Only 22.5% of adults and 14% of children received a dose of the updated shot. Focus-group discussions highlight the importance of a physician recommendation. Adults and children who receive a healthcare provider’s recommendation to get the COVID vaccine are more likely to get vaccinated. 
 

Pneumococcal Vaccines

On June 17, 2024, a new pneumococcal vaccine, PCV21, was FDA approved for those aged 18 or older under an accelerated-approval pathway. ACIP voted to keep it simple and recommends PCV21 as an option for adults aged 19 or older who currently have an indication to receive a dose of PCV. This new PCV21 vaccine is indicated for prevention of both invasive pneumococcal disease (IPD) and pneumococcal pneumonia. Its brand name is Capvaxive and it’s made by Merck. IPD includes bacteremia, pneumonia, pneumococcal bacteremia, and meningitis.

There are two basic types of pneumococcal vaccines: polysaccharide vaccines (PPSV), which do not produce memory B cells; and PCV conjugate vaccines, which do trigger memory B-cell production and therefore induce greater long-term immunity. PCV21 covers 11 unique serotypes not in PCV20. This is important because many cases of adult disease are caused by subtypes not covered by other FDA-approved pneumococcal vaccines. PCV21 has greater coverage of the serotypes that cause invasive disease in adults as compared with PCV20. PCV20 covers up to 58% of those strains, while PCV21 covers up to 84% of strains responsible for invasive disease in adults. But there’s one serotype missing in PCV21, which may limit the groups who receive it. PCV21 does not cover serotype 4, a major cause of IPD in certain populations. Adults experiencing homelessness are 100-300 times more likely to develop IPD due to serotype 4. So are adults in Alaska, especially Alaska Natives. They have an 88-fold increase in serotype 4 invasive disease. Serotype 4 is covered by other pneumococcal vaccines, so for these patients, PCV20 is likely a better high-valent conjugate vaccine option than PCV21.
 

Flu Vaccines

What’s new for flu? Everyone aged 6 months or older needs a seasonal flu vaccination every year. That’s not new, but there are two new things coming this fall: (1) The seasonal flu vaccine is going trivalent. FDA has removed the Yamagata flu B strain because it no longer appears to be circulating. (2) ACIP made a special off-label recommendation to boost flu protection for solid organ transplant recipients ages 18-64 who are on immunosuppressive medications. These high-risk patients now have the off-label option of receiving one of the higher-dose flu vaccines, including high-dose and adjuvanted flu vaccines, which are FDA approved only for those 65 or older.

Sandra Adamson Fryhofer, Adjunct Clinical Associate Professor of Medicine, Emory University School of Medicine, Atlanta, Georgia, has disclosed the following relevant financial relationships: Serve(d) as a director, officer, partner, employee, advisor, consultant, or trustee for American Medical Association; Medical Association of Atlanta; ACIP liaison. Received income in an amount equal to or greater than $250 from American College of Physicians; Medscape; American Medical Association.

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

This transcript has been edited for clarity. 

ACIP, the CDC’s Advisory Committee on Immunization Practices, met for 3 days in June. New vaccines and new recommendations for respiratory syncytial virus (RSV), flu, COVID, and a new pneumococcal vaccine were revealed.

RSV Protection

We’ll begin with RSV vaccines for adults aged 60 or older. For this group, shared clinical decision-making is out; it no longer applies. New, more specific recommendations from ACIP for RSV vaccines are both age based and risk based. The age-based recommendation applies to those aged 75 or older, who should receive a single RSV vaccine dose. If they have already received a dose under the old recommendation, they don’t need another one, at least for now.

The risk-based recommendation applies to adults from age 60 up to 75, but only for those with risk factors for severe RSV. These risk factors include lung disease, heart disease, immunocompromise, diabetes, obesity with a BMI of 40 or more, neurologic conditions, neuromuscular conditions, chronic kidney disease, liver disorders, hematologic disorders, frailty, and living in a nursing home or other long-term care facility. Those aged 60-75 with these risk factors should receive the RSV vaccine, and those without them should not receive it. The best time to get the RSV vaccine is late summer, but early fall administration with other adult vaccines is allowed and is acceptable.

Vaccine safety concerns were top of mind as ACIP members began their deliberations. Possible safety concerns for RSV vaccines have been detected for Guillain-Barré syndrome, atrial fibrillation, and idiopathic thrombocytopenic purpura. Safety surveillance updates are still interim and inconclusive. These signals still need further study and clarification. 

Two RSV vaccines have been on the market: one by Pfizer, called Abrysvo, which does not contain an adjuvant; and another one by GSK, called Arexvy, which does contain an adjuvant. With the recent FDA approval of Moderna’s new mRNA RSV vaccine, mRESVIA, there are now three RSV vaccines licensed for those 60 or older. Arexvy is now FDA approved for adults in their 50s. That just happened in early June, but ACIP doesn’t currently recommend it for this fifty-something age group, even for those at high risk for severe RSV disease. This may change with greater clarification of potential vaccine safety concerns.

There is also news about protecting babies from RSV. RSV is the most common cause of hospitalization for infants in the United States, and most hospitalizations for RSV are in healthy, full-term infants. We now have two ways to protect babies: a dose of RSV vaccine given to mom, or a dose of the long-acting monoclonal antibody nirsevimab given to the baby. ACIP clarified that those who received a dose of maternal RSV vaccine during a previous pregnancy are not recommended to receive additional doses during future pregnancies, but infants born to those who were vaccinated for RSV during a prior pregnancy can receive nirsevimab, which is recommended for infants up to 8 months of age during their first RSV season, and for high-risk infants and toddlers aged 8-19 months during their second RSV season.

Last RSV season, supplies of nirsevimab were limited and doses had to be prioritized. No supply problems are anticipated for the upcoming season. A study published in March showed that nirsevimab was 90% effective at preventing RSV-associated hospitalization for infants in their first RSV season.
 

COVID

Here’s what’s new for COVID vaccines. A new-formula COVID vaccine will be ready for fall. ACIP voted unanimously to recommend a dose of the updated 2024-2025 COVID vaccine for everyone aged 6 months or older. This is a universal recommendation, just like the one we have for flu. But understand that even though COVID has waned, it’s still more deadly than flu. Most Americans now have some immunity against COVID, but this immunity wanes with time, and it also wanes as the virus keeps changing. These updated vaccines provide an incremental boost to our immunity for the new formula for fall. FDA has directed manufacturers to use a monovalent JN.1 lineage formula, with a preference for the KP.2 strain.

Older adults (aged 75 or older) and children under 6 months old are hit hardest by COVID. The littlest ones are too young to be vaccinated, but they can get protection from maternal vaccination. The uptake for last year’s COVID vaccine has been disappointing. Only 22.5% of adults and 14% of children received a dose of the updated shot. Focus-group discussions highlight the importance of a physician recommendation. Adults and children who receive a healthcare provider’s recommendation to get the COVID vaccine are more likely to get vaccinated. 
 

Pneumococcal Vaccines

On June 17, 2024, a new pneumococcal vaccine, PCV21, was FDA approved for those aged 18 or older under an accelerated-approval pathway. ACIP voted to keep it simple and recommends PCV21 as an option for adults aged 19 or older who currently have an indication to receive a dose of PCV. This new PCV21 vaccine is indicated for prevention of both invasive pneumococcal disease (IPD) and pneumococcal pneumonia. Its brand name is Capvaxive and it’s made by Merck. IPD includes bacteremia, pneumonia, pneumococcal bacteremia, and meningitis.

There are two basic types of pneumococcal vaccines: polysaccharide vaccines (PPSV), which do not produce memory B cells; and PCV conjugate vaccines, which do trigger memory B-cell production and therefore induce greater long-term immunity. PCV21 covers 11 unique serotypes not in PCV20. This is important because many cases of adult disease are caused by subtypes not covered by other FDA-approved pneumococcal vaccines. PCV21 has greater coverage of the serotypes that cause invasive disease in adults as compared with PCV20. PCV20 covers up to 58% of those strains, while PCV21 covers up to 84% of strains responsible for invasive disease in adults. But there’s one serotype missing in PCV21, which may limit the groups who receive it. PCV21 does not cover serotype 4, a major cause of IPD in certain populations. Adults experiencing homelessness are 100-300 times more likely to develop IPD due to serotype 4. So are adults in Alaska, especially Alaska Natives. They have an 88-fold increase in serotype 4 invasive disease. Serotype 4 is covered by other pneumococcal vaccines, so for these patients, PCV20 is likely a better high-valent conjugate vaccine option than PCV21.
 

Flu Vaccines

What’s new for flu? Everyone aged 6 months or older needs a seasonal flu vaccination every year. That’s not new, but there are two new things coming this fall: (1) The seasonal flu vaccine is going trivalent. FDA has removed the Yamagata flu B strain because it no longer appears to be circulating. (2) ACIP made a special off-label recommendation to boost flu protection for solid organ transplant recipients ages 18-64 who are on immunosuppressive medications. These high-risk patients now have the off-label option of receiving one of the higher-dose flu vaccines, including high-dose and adjuvanted flu vaccines, which are FDA approved only for those 65 or older.

Sandra Adamson Fryhofer, Adjunct Clinical Associate Professor of Medicine, Emory University School of Medicine, Atlanta, Georgia, has disclosed the following relevant financial relationships: Serve(d) as a director, officer, partner, employee, advisor, consultant, or trustee for American Medical Association; Medical Association of Atlanta; ACIP liaison. Received income in an amount equal to or greater than $250 from American College of Physicians; Medscape; American Medical Association.

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

Recently I was in Wyoming. As I rode down the Snake River, the guide pointed out tree trunks that had been chewed on by beavers. Days later I joined a local friend for a hike to Taggart Lake. Upon reaching the end of the trail as I began to cast my eyes on the magnificent scenery, I could not help but notice several children, including toddlers, playing in the fresh warm water. The next thing out of my friend’s mouth was “You know there is Giardia in there.” Little did she know, she and the guide had just helped me select a topic for ID Consult.

Giardia, aka ”beaver fever,” was discussed in detail in this column as part of the differential of a diarrheal illness by Christopher J. Harrison, MD. However, it is the perfect time of year to revisit other recreational water–associated illnesses.

Infections acquired during recreational water activity can lead to illnesses involving the gastrointestinal tract, central nervous system, respiratory tract, skin, eyes, and ears. Pathogens, chemicals, and toxins are transmitted by ingestion, contact with contaminated water or a sick individual or animal, and inhalation of aerosols. The National Waterborne Disease and Outbreak Surveillance System (WBDOSS) collects data on waterborne disease and outbreaks associated with recreational water, drinking water, and environmental and undetermined exposures to water. All reporting to the Centers for Disease Control and Prevention (CDC) is voluntary. However, mandatory pathogen reporting requirements can vary by state. Ideally, once an agency has completed the outbreak investigation, the definitive cause and source will be determined, and interventions to prevent future outbreaks implemented.

Treated Versus Untreated Water

One useful way to help narrow the etiology of a patient’s symptoms is to consider those illnesses associated with treated water venues (e.g., pools, hot tubs, water parks) versus untreated water venues (e.g., rivers, lakes, oceans). Parents may forget to offer that information since they may not perceive a connection between water exposure and the illness, especially if they traveled within the US.

In 2021, the CDC reported results of data submitted between 2015 and 2019 from treated recreational water facilities. Of the 208 outbreaks, most (96%) were associated with public pools, hot tubs, or water playgrounds. These outbreaks resulted in at least 3,646 cases of illness, 286 hospitalizations, and 13 deaths. Overall infectious etiologies were the primary cause of illness. Of the 155 outbreaks with a confirmed etiology, Cryptosporidium was the causative pathogen in 49% of the outbreaks and accounted for 84% (2,492) of cases, while Legionella caused 42% of outbreaks, accounted for 13% (354) of cases, and was responsible for all 13 deaths. Slightly more than half (107 of 208) of the outbreaks started between June-August with Cryptosporidium accounting for 63 of the outbreaks during that period. A little more than one-third were associated with a hotel or resort. The majority of hotel recreational water–associated illnesses was associated with hot tubs. Of the 53 outbreaks without a confirmed etiology, 20 were suspected to have a chemical related etiology (excess chlorine, altered pool chemistry).

In contrast, there were 140 untreated recreational water outbreaks reported between 2000 and 2014 from 35 states and Guam involving 4,958 cases and 2 deaths. The etiology was confirmed for 103 (74%) outbreaks including 5 that had multiple etiologies and 8 due to toxins or chemicals; 7 of 8 toxins were from harmful algal blooms. Enteric pathogens were the etiology in 84% of outbreaks including: Norovirus (n = 1459), Shigella (n = 362) Avian schistosomes (n = 345), Cryptosporidium (n = 314) and Escherichia coli (n = 155).There were 24 cases of Giardia. The two deaths were due to Naegleria fowleri. The top 2 settings for these outbreaks were public parks (36%) and beaches (32%) with most outbreaks (n = 117) being associated with a lake /pond venue. Most outbreaks began between June and August.

The major differences between the two types of recreational water–associated illnesses are their most common settings and etiologies. With that in mind, let us briefly review the most common etiology from each venue.
 

Treated Water Venue: Cryptosporidiosis

Cryptosporidium is an oocyst-forming protozoa that causes a self-limited watery, nonbloody diarrhea which usually resolves within 10-14 days. Most patients have associated abdominal cramps, fever, and vomiting although infected persons can be asymptomatic. Infection in the immunocompromised potentially can lead to profuse and prolonged diarrhea. Oocysts are excreted in the feces of infected hosts and as little as 10 can cause infection. They can survive extreme environmental conditions in water and soil for several months and even survive up to 7 days in a properly chlorinated pool. Transmission occurs between humans via contaminated food and water or from infected animals. Oocysts have been isolated in raw or unpasteurized milk and apple cider. Incidence is highest in children 1 through 4 years of age.

Diagnosis today is usually via molecular methods (nucleic acid amplification tests, aka NAATs), due to their high sensitivity and specificity and is the preferred method. These tests can identify multiple gastrointestinal tract pathogens with a single assay. Diagnosis by microscopy or fecal immunoassay antigens are still available. Treatment is supportive in most cases. If needed, a 3-day course of nitazoxanide can be prescribed. Immunocompromised patients should be managed in consultation with an infectious disease specialist.
 

Untreated Water Venue: Norovirus

Norovirus is a viral illness characterized by the abrupt onset of vomiting and/or watery diarrhea, usually associated with nausea and abdominal cramps. Symptoms persist 24-72 hours, however they may be prolonged in the immunocompromised and persons at the extremes of the age spectrum. Norovirus has replaced rotavirus as the major cause of medically attended gastroenteritis. While a major cause of recreational water–associated illnesses, high attack rates also occur in semi closed communities including cruise ships, childcare centers, and schools. Transmission is fecal-oral, vomitus oral, person to person, by ingestion of contaminated food and water or touching contaminated surfaces with subsequent touching of the mouth. Asymptomatic viral shedding may occur, especially in children. Prolonged shedding (> 6 mos.) has been reported in immunocompromised hosts.

Molecular diagnosis with stool is utilized most often. Treatment is supportive.
 

Take Home Message

When evaluating your patients for an acute gastrointestinal illness, consider water-related activities and their potential for being the source. Encourage patients not to ignore posted advisories on beaches, to not swim if they have diarrhea, not to swallow the water they swim in and to minimize water entering their nose while swimming in warm freshwater. If you start seeing several patients with similar symptoms and/or etiology, consider contacting your local or state health department. It could be the beginning of an outbreak.
 

Dr. Word is a pediatric infectious disease specialist and director of the Houston Travel Medicine Clinic. She has no relevant financial disclosures.

Suggested Readings

Graciaa DS et al. Outbreaks Associated with Untreated Recreational Water — United States, 2000–2014. MMWR Morb Mortal Wkly Rep. 2018 Jun 29;67(25):701-706. doi: 10.15585/mmwr.mm6725a1.

Hlavsa MC et al. Outbreaks Associated with Treated Recreational Water — United States, 2015–2019. MMWR Morb Mortal Wkly Rep. 2021;70:733–738. doi: 10.15585/mmwr.mm7020a1.

Kimberlin DW et al., eds. Red Book Report of the Committee on Infectious Diseases. 33rd ed. American Academy of Pediatrics. 2024. Cryptosporidiosis, p 338-40 and Norovirus, p 622-624.Waterborne Outbreaks Summary Reports. CDC. 2024 April 18.

Recently I was in Wyoming. As I rode down the Snake River, the guide pointed out tree trunks that had been chewed on by beavers. Days later I joined a local friend for a hike to Taggart Lake. Upon reaching the end of the trail as I began to cast my eyes on the magnificent scenery, I could not help but notice several children, including toddlers, playing in the fresh warm water. The next thing out of my friend’s mouth was “You know there is Giardia in there.” Little did she know, she and the guide had just helped me select a topic for ID Consult.

Giardia, aka ”beaver fever,” was discussed in detail in this column as part of the differential of a diarrheal illness by Christopher J. Harrison, MD. However, it is the perfect time of year to revisit other recreational water–associated illnesses.

Infections acquired during recreational water activity can lead to illnesses involving the gastrointestinal tract, central nervous system, respiratory tract, skin, eyes, and ears. Pathogens, chemicals, and toxins are transmitted by ingestion, contact with contaminated water or a sick individual or animal, and inhalation of aerosols. The National Waterborne Disease and Outbreak Surveillance System (WBDOSS) collects data on waterborne disease and outbreaks associated with recreational water, drinking water, and environmental and undetermined exposures to water. All reporting to the Centers for Disease Control and Prevention (CDC) is voluntary. However, mandatory pathogen reporting requirements can vary by state. Ideally, once an agency has completed the outbreak investigation, the definitive cause and source will be determined, and interventions to prevent future outbreaks implemented.

Treated Versus Untreated Water

One useful way to help narrow the etiology of a patient’s symptoms is to consider those illnesses associated with treated water venues (e.g., pools, hot tubs, water parks) versus untreated water venues (e.g., rivers, lakes, oceans). Parents may forget to offer that information since they may not perceive a connection between water exposure and the illness, especially if they traveled within the US.

In 2021, the CDC reported results of data submitted between 2015 and 2019 from treated recreational water facilities. Of the 208 outbreaks, most (96%) were associated with public pools, hot tubs, or water playgrounds. These outbreaks resulted in at least 3,646 cases of illness, 286 hospitalizations, and 13 deaths. Overall infectious etiologies were the primary cause of illness. Of the 155 outbreaks with a confirmed etiology, Cryptosporidium was the causative pathogen in 49% of the outbreaks and accounted for 84% (2,492) of cases, while Legionella caused 42% of outbreaks, accounted for 13% (354) of cases, and was responsible for all 13 deaths. Slightly more than half (107 of 208) of the outbreaks started between June-August with Cryptosporidium accounting for 63 of the outbreaks during that period. A little more than one-third were associated with a hotel or resort. The majority of hotel recreational water–associated illnesses was associated with hot tubs. Of the 53 outbreaks without a confirmed etiology, 20 were suspected to have a chemical related etiology (excess chlorine, altered pool chemistry).

In contrast, there were 140 untreated recreational water outbreaks reported between 2000 and 2014 from 35 states and Guam involving 4,958 cases and 2 deaths. The etiology was confirmed for 103 (74%) outbreaks including 5 that had multiple etiologies and 8 due to toxins or chemicals; 7 of 8 toxins were from harmful algal blooms. Enteric pathogens were the etiology in 84% of outbreaks including: Norovirus (n = 1459), Shigella (n = 362) Avian schistosomes (n = 345), Cryptosporidium (n = 314) and Escherichia coli (n = 155).There were 24 cases of Giardia. The two deaths were due to Naegleria fowleri. The top 2 settings for these outbreaks were public parks (36%) and beaches (32%) with most outbreaks (n = 117) being associated with a lake /pond venue. Most outbreaks began between June and August.

The major differences between the two types of recreational water–associated illnesses are their most common settings and etiologies. With that in mind, let us briefly review the most common etiology from each venue.
 

Treated Water Venue: Cryptosporidiosis

Cryptosporidium is an oocyst-forming protozoa that causes a self-limited watery, nonbloody diarrhea which usually resolves within 10-14 days. Most patients have associated abdominal cramps, fever, and vomiting although infected persons can be asymptomatic. Infection in the immunocompromised potentially can lead to profuse and prolonged diarrhea. Oocysts are excreted in the feces of infected hosts and as little as 10 can cause infection. They can survive extreme environmental conditions in water and soil for several months and even survive up to 7 days in a properly chlorinated pool. Transmission occurs between humans via contaminated food and water or from infected animals. Oocysts have been isolated in raw or unpasteurized milk and apple cider. Incidence is highest in children 1 through 4 years of age.

Diagnosis today is usually via molecular methods (nucleic acid amplification tests, aka NAATs), due to their high sensitivity and specificity and is the preferred method. These tests can identify multiple gastrointestinal tract pathogens with a single assay. Diagnosis by microscopy or fecal immunoassay antigens are still available. Treatment is supportive in most cases. If needed, a 3-day course of nitazoxanide can be prescribed. Immunocompromised patients should be managed in consultation with an infectious disease specialist.
 

Untreated Water Venue: Norovirus

Norovirus is a viral illness characterized by the abrupt onset of vomiting and/or watery diarrhea, usually associated with nausea and abdominal cramps. Symptoms persist 24-72 hours, however they may be prolonged in the immunocompromised and persons at the extremes of the age spectrum. Norovirus has replaced rotavirus as the major cause of medically attended gastroenteritis. While a major cause of recreational water–associated illnesses, high attack rates also occur in semi closed communities including cruise ships, childcare centers, and schools. Transmission is fecal-oral, vomitus oral, person to person, by ingestion of contaminated food and water or touching contaminated surfaces with subsequent touching of the mouth. Asymptomatic viral shedding may occur, especially in children. Prolonged shedding (> 6 mos.) has been reported in immunocompromised hosts.

Molecular diagnosis with stool is utilized most often. Treatment is supportive.
 

Take Home Message

When evaluating your patients for an acute gastrointestinal illness, consider water-related activities and their potential for being the source. Encourage patients not to ignore posted advisories on beaches, to not swim if they have diarrhea, not to swallow the water they swim in and to minimize water entering their nose while swimming in warm freshwater. If you start seeing several patients with similar symptoms and/or etiology, consider contacting your local or state health department. It could be the beginning of an outbreak.
 

Dr. Word is a pediatric infectious disease specialist and director of the Houston Travel Medicine Clinic. She has no relevant financial disclosures.

Suggested Readings

Graciaa DS et al. Outbreaks Associated with Untreated Recreational Water — United States, 2000–2014. MMWR Morb Mortal Wkly Rep. 2018 Jun 29;67(25):701-706. doi: 10.15585/mmwr.mm6725a1.

Hlavsa MC et al. Outbreaks Associated with Treated Recreational Water — United States, 2015–2019. MMWR Morb Mortal Wkly Rep. 2021;70:733–738. doi: 10.15585/mmwr.mm7020a1.

Kimberlin DW et al., eds. Red Book Report of the Committee on Infectious Diseases. 33rd ed. American Academy of Pediatrics. 2024. Cryptosporidiosis, p 338-40 and Norovirus, p 622-624.Waterborne Outbreaks Summary Reports. CDC. 2024 April 18.

Recently I was in Wyoming. As I rode down the Snake River, the guide pointed out tree trunks that had been chewed on by beavers. Days later I joined a local friend for a hike to Taggart Lake. Upon reaching the end of the trail as I began to cast my eyes on the magnificent scenery, I could not help but notice several children, including toddlers, playing in the fresh warm water. The next thing out of my friend’s mouth was “You know there is Giardia in there.” Little did she know, she and the guide had just helped me select a topic for ID Consult.

Giardia, aka ”beaver fever,” was discussed in detail in this column as part of the differential of a diarrheal illness by Christopher J. Harrison, MD. However, it is the perfect time of year to revisit other recreational water–associated illnesses.

Infections acquired during recreational water activity can lead to illnesses involving the gastrointestinal tract, central nervous system, respiratory tract, skin, eyes, and ears. Pathogens, chemicals, and toxins are transmitted by ingestion, contact with contaminated water or a sick individual or animal, and inhalation of aerosols. The National Waterborne Disease and Outbreak Surveillance System (WBDOSS) collects data on waterborne disease and outbreaks associated with recreational water, drinking water, and environmental and undetermined exposures to water. All reporting to the Centers for Disease Control and Prevention (CDC) is voluntary. However, mandatory pathogen reporting requirements can vary by state. Ideally, once an agency has completed the outbreak investigation, the definitive cause and source will be determined, and interventions to prevent future outbreaks implemented.

Treated Versus Untreated Water

One useful way to help narrow the etiology of a patient’s symptoms is to consider those illnesses associated with treated water venues (e.g., pools, hot tubs, water parks) versus untreated water venues (e.g., rivers, lakes, oceans). Parents may forget to offer that information since they may not perceive a connection between water exposure and the illness, especially if they traveled within the US.

In 2021, the CDC reported results of data submitted between 2015 and 2019 from treated recreational water facilities. Of the 208 outbreaks, most (96%) were associated with public pools, hot tubs, or water playgrounds. These outbreaks resulted in at least 3,646 cases of illness, 286 hospitalizations, and 13 deaths. Overall infectious etiologies were the primary cause of illness. Of the 155 outbreaks with a confirmed etiology, Cryptosporidium was the causative pathogen in 49% of the outbreaks and accounted for 84% (2,492) of cases, while Legionella caused 42% of outbreaks, accounted for 13% (354) of cases, and was responsible for all 13 deaths. Slightly more than half (107 of 208) of the outbreaks started between June-August with Cryptosporidium accounting for 63 of the outbreaks during that period. A little more than one-third were associated with a hotel or resort. The majority of hotel recreational water–associated illnesses was associated with hot tubs. Of the 53 outbreaks without a confirmed etiology, 20 were suspected to have a chemical related etiology (excess chlorine, altered pool chemistry).

In contrast, there were 140 untreated recreational water outbreaks reported between 2000 and 2014 from 35 states and Guam involving 4,958 cases and 2 deaths. The etiology was confirmed for 103 (74%) outbreaks including 5 that had multiple etiologies and 8 due to toxins or chemicals; 7 of 8 toxins were from harmful algal blooms. Enteric pathogens were the etiology in 84% of outbreaks including: Norovirus (n = 1459), Shigella (n = 362) Avian schistosomes (n = 345), Cryptosporidium (n = 314) and Escherichia coli (n = 155).There were 24 cases of Giardia. The two deaths were due to Naegleria fowleri. The top 2 settings for these outbreaks were public parks (36%) and beaches (32%) with most outbreaks (n = 117) being associated with a lake /pond venue. Most outbreaks began between June and August.

The major differences between the two types of recreational water–associated illnesses are their most common settings and etiologies. With that in mind, let us briefly review the most common etiology from each venue.
 

Treated Water Venue: Cryptosporidiosis

Cryptosporidium is an oocyst-forming protozoa that causes a self-limited watery, nonbloody diarrhea which usually resolves within 10-14 days. Most patients have associated abdominal cramps, fever, and vomiting although infected persons can be asymptomatic. Infection in the immunocompromised potentially can lead to profuse and prolonged diarrhea. Oocysts are excreted in the feces of infected hosts and as little as 10 can cause infection. They can survive extreme environmental conditions in water and soil for several months and even survive up to 7 days in a properly chlorinated pool. Transmission occurs between humans via contaminated food and water or from infected animals. Oocysts have been isolated in raw or unpasteurized milk and apple cider. Incidence is highest in children 1 through 4 years of age.

Diagnosis today is usually via molecular methods (nucleic acid amplification tests, aka NAATs), due to their high sensitivity and specificity and is the preferred method. These tests can identify multiple gastrointestinal tract pathogens with a single assay. Diagnosis by microscopy or fecal immunoassay antigens are still available. Treatment is supportive in most cases. If needed, a 3-day course of nitazoxanide can be prescribed. Immunocompromised patients should be managed in consultation with an infectious disease specialist.
 

Untreated Water Venue: Norovirus

Norovirus is a viral illness characterized by the abrupt onset of vomiting and/or watery diarrhea, usually associated with nausea and abdominal cramps. Symptoms persist 24-72 hours, however they may be prolonged in the immunocompromised and persons at the extremes of the age spectrum. Norovirus has replaced rotavirus as the major cause of medically attended gastroenteritis. While a major cause of recreational water–associated illnesses, high attack rates also occur in semi closed communities including cruise ships, childcare centers, and schools. Transmission is fecal-oral, vomitus oral, person to person, by ingestion of contaminated food and water or touching contaminated surfaces with subsequent touching of the mouth. Asymptomatic viral shedding may occur, especially in children. Prolonged shedding (> 6 mos.) has been reported in immunocompromised hosts.

Molecular diagnosis with stool is utilized most often. Treatment is supportive.
 

Take Home Message

When evaluating your patients for an acute gastrointestinal illness, consider water-related activities and their potential for being the source. Encourage patients not to ignore posted advisories on beaches, to not swim if they have diarrhea, not to swallow the water they swim in and to minimize water entering their nose while swimming in warm freshwater. If you start seeing several patients with similar symptoms and/or etiology, consider contacting your local or state health department. It could be the beginning of an outbreak.
 

Dr. Word is a pediatric infectious disease specialist and director of the Houston Travel Medicine Clinic. She has no relevant financial disclosures.

Suggested Readings

Graciaa DS et al. Outbreaks Associated with Untreated Recreational Water — United States, 2000–2014. MMWR Morb Mortal Wkly Rep. 2018 Jun 29;67(25):701-706. doi: 10.15585/mmwr.mm6725a1.

Hlavsa MC et al. Outbreaks Associated with Treated Recreational Water — United States, 2015–2019. MMWR Morb Mortal Wkly Rep. 2021;70:733–738. doi: 10.15585/mmwr.mm7020a1.

Kimberlin DW et al., eds. Red Book Report of the Committee on Infectious Diseases. 33rd ed. American Academy of Pediatrics. 2024. Cryptosporidiosis, p 338-40 and Norovirus, p 622-624.Waterborne Outbreaks Summary Reports. CDC. 2024 April 18.

Federal officials on July 11 proposed Medicare rates that effectively would cut physician pay by about 3% in 2025, touching off a fresh round of protests from medical associations.

The 2025 draft base rate, or conversion factor, is slated to drop to $32.36 from the current level of $33.29, the Centers for Medicare & Medicaid Services said.

The American Medical Association (AMA), the American Academy of Family Physicians (AAFP) and other groups on July 10 reiterated calls on Congress to revise the law on Medicare payment for physicians and move away from short-term tweaks.

This proposed cut is mostly due to the 5-year freeze in the physician schedule base rate mandated by the 2015 Medicare Access and CHIP Reauthorization Act (MACRA). Congress designed MACRA with an aim of shifting clinicians toward programs that would peg pay increases to quality measures.

Lawmakers have since had to soften the blow of that freeze, acknowledging flaws in MACRA and inflation’s significant toll on medical practices. Yet lawmakers have made temporary fixes, such as a 2.93% increase in current payment that’s set to expire.

“Previous quick fixes have been insufficient — this situation requires a bold, substantial approach,” Bruce A. Scott, MD, the AMA president, said in a statement. “A Band-Aid goes only so far when the patient is in dire need.”

Dr. Scott noted that the Medicare Economic Index — a measure of practice cost inflation — is expected to rise by 3.6% in 2025.

“As a first step, Congress must enact an annual inflationary update to help physician payment rates keep pace with rising practice costs,” Steven P. Furr, MD, AAFP’s president, said in a statement released July 10. “Any payment reductions will threaten practices and exacerbate workforce shortages, preventing patients from accessing the primary care, behavioral health care, and other critical preventive services they need.”

Many medical groups, including the AMA, AAFP, and the Medical Group Management Association, are pressing Congress to pass a law that would tie the conversion factor of the physician fee schedule to inflation.

Influential advisory groups also have backed the idea of increasing the conversion factor. For example, the Medicare Payment Advisory Commission in March recommended to Congress that it increase the 2025 conversion factor, suggesting a bump of half of the projected increase in the Medicare Economic Index.

Congress seems unlikely to revamp the physician fee schedule this year, with members spending significant time away from Washington ahead of the November election.

That could make it likely that Congress’ next action on Medicare payment rates would be another short-term tweak — instead of long-lasting change.

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

Federal officials on July 11 proposed Medicare rates that effectively would cut physician pay by about 3% in 2025, touching off a fresh round of protests from medical associations.

The 2025 draft base rate, or conversion factor, is slated to drop to $32.36 from the current level of $33.29, the Centers for Medicare & Medicaid Services said.

The American Medical Association (AMA), the American Academy of Family Physicians (AAFP) and other groups on July 10 reiterated calls on Congress to revise the law on Medicare payment for physicians and move away from short-term tweaks.

This proposed cut is mostly due to the 5-year freeze in the physician schedule base rate mandated by the 2015 Medicare Access and CHIP Reauthorization Act (MACRA). Congress designed MACRA with an aim of shifting clinicians toward programs that would peg pay increases to quality measures.

Lawmakers have since had to soften the blow of that freeze, acknowledging flaws in MACRA and inflation’s significant toll on medical practices. Yet lawmakers have made temporary fixes, such as a 2.93% increase in current payment that’s set to expire.

“Previous quick fixes have been insufficient — this situation requires a bold, substantial approach,” Bruce A. Scott, MD, the AMA president, said in a statement. “A Band-Aid goes only so far when the patient is in dire need.”

Dr. Scott noted that the Medicare Economic Index — a measure of practice cost inflation — is expected to rise by 3.6% in 2025.

“As a first step, Congress must enact an annual inflationary update to help physician payment rates keep pace with rising practice costs,” Steven P. Furr, MD, AAFP’s president, said in a statement released July 10. “Any payment reductions will threaten practices and exacerbate workforce shortages, preventing patients from accessing the primary care, behavioral health care, and other critical preventive services they need.”

Many medical groups, including the AMA, AAFP, and the Medical Group Management Association, are pressing Congress to pass a law that would tie the conversion factor of the physician fee schedule to inflation.

Influential advisory groups also have backed the idea of increasing the conversion factor. For example, the Medicare Payment Advisory Commission in March recommended to Congress that it increase the 2025 conversion factor, suggesting a bump of half of the projected increase in the Medicare Economic Index.

Congress seems unlikely to revamp the physician fee schedule this year, with members spending significant time away from Washington ahead of the November election.

That could make it likely that Congress’ next action on Medicare payment rates would be another short-term tweak — instead of long-lasting change.

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

Federal officials on July 11 proposed Medicare rates that effectively would cut physician pay by about 3% in 2025, touching off a fresh round of protests from medical associations.

The 2025 draft base rate, or conversion factor, is slated to drop to $32.36 from the current level of $33.29, the Centers for Medicare & Medicaid Services said.

The American Medical Association (AMA), the American Academy of Family Physicians (AAFP) and other groups on July 10 reiterated calls on Congress to revise the law on Medicare payment for physicians and move away from short-term tweaks.

This proposed cut is mostly due to the 5-year freeze in the physician schedule base rate mandated by the 2015 Medicare Access and CHIP Reauthorization Act (MACRA). Congress designed MACRA with an aim of shifting clinicians toward programs that would peg pay increases to quality measures.

Lawmakers have since had to soften the blow of that freeze, acknowledging flaws in MACRA and inflation’s significant toll on medical practices. Yet lawmakers have made temporary fixes, such as a 2.93% increase in current payment that’s set to expire.

“Previous quick fixes have been insufficient — this situation requires a bold, substantial approach,” Bruce A. Scott, MD, the AMA president, said in a statement. “A Band-Aid goes only so far when the patient is in dire need.”

Dr. Scott noted that the Medicare Economic Index — a measure of practice cost inflation — is expected to rise by 3.6% in 2025.

“As a first step, Congress must enact an annual inflationary update to help physician payment rates keep pace with rising practice costs,” Steven P. Furr, MD, AAFP’s president, said in a statement released July 10. “Any payment reductions will threaten practices and exacerbate workforce shortages, preventing patients from accessing the primary care, behavioral health care, and other critical preventive services they need.”

Many medical groups, including the AMA, AAFP, and the Medical Group Management Association, are pressing Congress to pass a law that would tie the conversion factor of the physician fee schedule to inflation.

Influential advisory groups also have backed the idea of increasing the conversion factor. For example, the Medicare Payment Advisory Commission in March recommended to Congress that it increase the 2025 conversion factor, suggesting a bump of half of the projected increase in the Medicare Economic Index.

Congress seems unlikely to revamp the physician fee schedule this year, with members spending significant time away from Washington ahead of the November election.

That could make it likely that Congress’ next action on Medicare payment rates would be another short-term tweak — instead of long-lasting change.

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