Clinical Psychiatry News

Summary and Key Highlights

Summary: Dr Tyra Fainstad explores the ingrained culture in medicine that encourages self-criticism, with many physicians feeling that they must be hard on themselves to succeed. Dr Fainstad challenges this belief, advocating for self-compassion as a healthier alternative. The evolving medical field now includes physicians who prioritize well-being without sacrificing quality of care, underscoring the importance of self-kindness for sustainable practice.

Key Takeaways:

• Many physicians believe that self-criticism is necessary for success, a mindset rooted in medical culture.
• Practicing self-compassion can improve long-term resilience and prevent burnout.
• The changing landscape of healthcare supports a more balanced approach to physician well-being.

Our Editors Also Recommend: 

Medscape Physician Burnout & Depression Report 2024: ‘We Have Much Work to Do’

Medscape Hospitalist Burnout & Depression Report 2024: Seeking Progress, Balance 

Medscape Physician Lifestyle & Happiness Report 2024: The Ongoing Struggle for Balance 

A Transformative Rx for Burnout, Grief, and Illness: Dance 

 

Next Medscape Masters Event:

Stay at the forefront of obesity care. Register for exclusive insights and the latest treatment innovations. 

Lotte Dyrbye, has disclosed the following relevant financial relationships: Co-inventor of the Well-being Index and its derivatives, which Mayo Clinic has licensed. Dyrbye receives royalties.

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

Summary and Key Highlights

Summary: Dr Tyra Fainstad explores the ingrained culture in medicine that encourages self-criticism, with many physicians feeling that they must be hard on themselves to succeed. Dr Fainstad challenges this belief, advocating for self-compassion as a healthier alternative. The evolving medical field now includes physicians who prioritize well-being without sacrificing quality of care, underscoring the importance of self-kindness for sustainable practice.

Key Takeaways:

• Many physicians believe that self-criticism is necessary for success, a mindset rooted in medical culture.
• Practicing self-compassion can improve long-term resilience and prevent burnout.
• The changing landscape of healthcare supports a more balanced approach to physician well-being.

Our Editors Also Recommend: 

Medscape Physician Burnout & Depression Report 2024: ‘We Have Much Work to Do’

Medscape Hospitalist Burnout & Depression Report 2024: Seeking Progress, Balance 

Medscape Physician Lifestyle & Happiness Report 2024: The Ongoing Struggle for Balance 

A Transformative Rx for Burnout, Grief, and Illness: Dance 

 

Next Medscape Masters Event:

Stay at the forefront of obesity care. Register for exclusive insights and the latest treatment innovations. 

Lotte Dyrbye, has disclosed the following relevant financial relationships: Co-inventor of the Well-being Index and its derivatives, which Mayo Clinic has licensed. Dyrbye receives royalties.

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

Summary and Key Highlights

Summary: Dr Tyra Fainstad explores the ingrained culture in medicine that encourages self-criticism, with many physicians feeling that they must be hard on themselves to succeed. Dr Fainstad challenges this belief, advocating for self-compassion as a healthier alternative. The evolving medical field now includes physicians who prioritize well-being without sacrificing quality of care, underscoring the importance of self-kindness for sustainable practice.

Key Takeaways:

• Many physicians believe that self-criticism is necessary for success, a mindset rooted in medical culture.
• Practicing self-compassion can improve long-term resilience and prevent burnout.
• The changing landscape of healthcare supports a more balanced approach to physician well-being.

Our Editors Also Recommend: 

Medscape Physician Burnout & Depression Report 2024: ‘We Have Much Work to Do’

Medscape Hospitalist Burnout & Depression Report 2024: Seeking Progress, Balance 

Medscape Physician Lifestyle & Happiness Report 2024: The Ongoing Struggle for Balance 

A Transformative Rx for Burnout, Grief, and Illness: Dance 

 

Next Medscape Masters Event:

Stay at the forefront of obesity care. Register for exclusive insights and the latest treatment innovations. 

Lotte Dyrbye, has disclosed the following relevant financial relationships: Co-inventor of the Well-being Index and its derivatives, which Mayo Clinic has licensed. Dyrbye receives royalties.

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

Summary and Key Highlights

Summary: Dr Tyra Fainstad shares her personal experience with burnout and the journey to recovery through coaching and self-compassion. She describes the pressures of seeking validation through external achievements, which ultimately led to a crisis in self-worth after medical training. Through coaching, she learned to cultivate a sense of internal fulfillment, reconnecting with her passion for medicine and achieving a healthier balance.

Key Takeaways:

• Relying solely on external validation can deepen burnout and affect well-being.
• Coaching empowers physicians to develop self-compassion and sustainable coping strategies.
• Shifting from external to internal validation strengthens long-term fulfillment and job satisfaction.

Our Editors Also Recommend: 

Medscape Physician Burnout & Depression Report 2024: ‘We Have Much Work to Do’

Medscape Hospitalist Burnout & Depression Report 2024: Seeking Progress, Balance 

Medscape Physician Lifestyle & Happiness Report 2024: The Ongoing Struggle for Balance 

A Transformative Rx for Burnout, Grief, and Illness: Dance 

 

Next Medscape Masters Event:

Stay at the forefront of obesity care. Register for exclusive insights and the latest treatment innovations.

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

Summary and Key Highlights

Summary: Dr Tyra Fainstad shares her personal experience with burnout and the journey to recovery through coaching and self-compassion. She describes the pressures of seeking validation through external achievements, which ultimately led to a crisis in self-worth after medical training. Through coaching, she learned to cultivate a sense of internal fulfillment, reconnecting with her passion for medicine and achieving a healthier balance.

Key Takeaways:

• Relying solely on external validation can deepen burnout and affect well-being.
• Coaching empowers physicians to develop self-compassion and sustainable coping strategies.
• Shifting from external to internal validation strengthens long-term fulfillment and job satisfaction.

Our Editors Also Recommend: 

Medscape Physician Burnout & Depression Report 2024: ‘We Have Much Work to Do’

Medscape Hospitalist Burnout & Depression Report 2024: Seeking Progress, Balance 

Medscape Physician Lifestyle & Happiness Report 2024: The Ongoing Struggle for Balance 

A Transformative Rx for Burnout, Grief, and Illness: Dance 

 

Next Medscape Masters Event:

Stay at the forefront of obesity care. Register for exclusive insights and the latest treatment innovations.

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

Summary and Key Highlights

Summary: Dr Tyra Fainstad shares her personal experience with burnout and the journey to recovery through coaching and self-compassion. She describes the pressures of seeking validation through external achievements, which ultimately led to a crisis in self-worth after medical training. Through coaching, she learned to cultivate a sense of internal fulfillment, reconnecting with her passion for medicine and achieving a healthier balance.

Key Takeaways:

• Relying solely on external validation can deepen burnout and affect well-being.
• Coaching empowers physicians to develop self-compassion and sustainable coping strategies.
• Shifting from external to internal validation strengthens long-term fulfillment and job satisfaction.

Our Editors Also Recommend: 

Medscape Physician Burnout & Depression Report 2024: ‘We Have Much Work to Do’

Medscape Hospitalist Burnout & Depression Report 2024: Seeking Progress, Balance 

Medscape Physician Lifestyle & Happiness Report 2024: The Ongoing Struggle for Balance 

A Transformative Rx for Burnout, Grief, and Illness: Dance 

 

Next Medscape Masters Event:

Stay at the forefront of obesity care. Register for exclusive insights and the latest treatment innovations.

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

It was 1996, and Masashi Yanagisawa was on the brink of his next discovery.

The Japanese scientist had arrived at the University of Texas Southwestern in Dallas 5 years earlier, setting up his own lab at age 31. After earning his medical degree, he’d gained notoriety as a PhD student when he discovered endothelin, the body’s most potent vasoconstrictor.

Yanagisawa was about to prove this wasn’t a first-timer’s fluke.

His focus was G-protein–coupled receptors (GPCRs), cell surface receptors that respond to a range of molecules and a popular target for drug discovery. The Human Genome Project had just revealed a slew of newly discovered receptors, or “orphan” GPCRs, and identifying an activating molecule could yield a new drug. (That vasoconstrictor endothelin was one such success story, leading to four new drug approvals in the United States over the past quarter century.) 

Yanagisawa and his team created 50 cell lines, each expressing one orphan receptor. They applied animal tissue to every line, along with a calcium-sensitive dye. If the cells glowed under the microscope, they had a hit.

“He was basically doing an elaborate fishing expedition,” said Jon Willie, MD, PhD, an associate professor of neurosurgery at Washington University School of Medicine in St. Louis, Missouri, who would later join Yanagisawa’s team.

It wasn’t long before the neon-green fluorescence signaled a match. After isolating the activating molecule, the scientists realized they were dealing with two neuropeptides.

No one had ever seen these proteins before. And no one knew their discovery would set off a decades-long journey that would finally solve a century-old medical mystery — and may even fix one of the biggest health crises of our time, as revealed by research published earlier in 2024. It’s a story of strange coincidences, serendipitous discoveries, and quirky details. Most of all, it’s a fascinating example of how basic science can revolutionize medicine — and how true breakthroughs happen over time and in real time.

 

But That’s Basic Science for You

Most basic science studies — the early, foundational research that provides the building blocks for science that follows — don’t lead to medical breakthroughs. But some do, often in surprising ways.

Also called curiosity-driven research, basic science aims to fill knowledge gaps to keep science moving, even if the trajectory isn’t always clear.

“The people working on the basic research that led to discoveries that transformed the modern world had no idea at the time,” said Isobel Ronai, PhD, a postdoctoral fellow in life sciences at Harvard University, Cambridge, Massachusetts. “Often, these stories can only be seen in hindsight,” sometimes decades later.

Case in point: For molecular biology techniques — things like DNA sequencing and gene targeting — the lag between basic science and breakthrough is, on average, 23 years. While many of the resulting techniques have received Nobel Prizes, few of the foundational discoveries have been awarded such accolades.

“The scientific glory is more often associated with the downstream applications,” said Ronai. “The importance of basic research can get lost. But it is the foundation for any future application, such as drug development.”

As funding is increasingly funneled toward applied research, basic science can require a certain persistence. What this under-appreciation can obscure is the pathway to discovery — which is often as compelling as the end result, full of unpredictable twists, turns, and even interpersonal intrigue.

And then there’s the fascinating — and definitely complicated — phenomenon of multiple independent discoveries.

As in: What happens when two independent teams discover the same thing at the same time?

 

Back to Yanagisawa’s Lab ...

... where he and his team learned a few things about those new neuropeptides. Rat brain studies pinpointed the lateral hypothalamus as the peptides’ area of activity — a region often called the brain’s feeding center.

“If you destroy that part of the brain, animals lose appetite,” said Yanagisawa. So these peptides must control feeding, the scientists thought.

Sure enough, injecting the proteins into rat brains led the rodents to start eating.

Satisfied, the team named them “orexin-A” and “orexin-B,” for the Greek word “orexis,” meaning appetite. The brain receptors became “orexin-1” and “orexin-2.” The team prepared to publish its findings in Cell.

But another group beat them to it.

 

Introducing the ‘Hypocretins’

In early January 1998, a team of Scripps Research Institute scientists, led by J. Gregor Sutcliffe, PhD, released a paper in the journal PNAS. They described a gene encoding for the precursor to two neuropeptides

As the peptides were in the hypothalamus and structurally like secretin (a gut hormone), they called them “hypocretins.” The hypocretin peptides excited neurons in the hypothalamus, and later that year, the scientists discovered that the neurons’ branches extended, tentacle-like, throughout the brain. “Many of the connected areas were involved in sleep-wake control,” said Thomas Kilduff, PhD, who joined the Sutcliffe lab just weeks before the hypocretin discovery. At the time, however, the significance of this finding was not yet clear.

Weeks later, in February 1998, Yanagisawa’s paper came out.

Somehow, two groups, over 1000 miles apart, had stumbled on the same neuropeptides at the same time.

“I first heard about [Yanagisawa’s] paper on NBC Nightly News,” recalls Kilduff. “I was skiing in the mountains, so I had to wait until Monday to get back to the lab to see what the paper was all about.”

He realized that Yanagisawa’s orexin was his lab’s hypocretin, although the study didn’t mention another team’s discovery.

“There may have been accusations. But as far as I know, it’s because [Yanagisawa] didn’t know [about the other paper],” said Willie. “This was not something he produced in 2 months. This was clearly years of work.” 

 

‘Multiple Discovery’ Happens More Often Than You Think

In the mid-20th century, sociologist Robert Merton described the phenomenon of “multiple discovery,” where many scientific discoveries or inventions are made independently at roughly the same time.

“This happens much more frequently in scientific research than people suppose,” said David Pendlebury, head of research analysis at Clarivate’s Institute for Scientific Information, the analytics company’s research arm. (Last year, Pendlebury flagged the hypocretin/orexin discovery for Clarivate’s prestigious Citations Laureates award, an honor that aims to predict, often successfully, who will go on to win the Nobel Prize.) 

“People have this idea of the lone researcher making a brilliant discovery,” Pendlebury said. “But more and more, teams find things at the same time.” 

While this can — and does — lead to squabbling about who deserves credit, the desire to be first can also be highly motivating, said Mike Schneider, PhD, an assistant professor of philosophy at the University of Missouri, Columbia, who studies the social dynamics of science, potentially leading to faster scientific advancement.

The downside? If two groups produce the same or similar results, but one publishes first, scientific journals tend to reject the second, citing a lack of novelty.

Yet duplicating research is a key step in confirming the validity of a discovery.

That’s why, in 2018, the journal PLOS Biology created a provision for “scooped” scientists, allowing them to submit their paper within 6 months of the first as a complementary finding. Instead of viewing this as redundancy, the editors believe it adds robustness to the research.

 

‘What the Heck Is This Mouse Doing?’

Even though he’d been scooped, Yanagisawa forged on to the next challenge: Confirming whether orexin regulated feeding.

He began breeding mice missing the orexin gene. His team expected these “knockout” mice to eat less, resulting in a thinner body than other rodents. To the contrary, “they were on average fatter,” said Willie. “They were eating less but weighed more, indicating a slower metabolism.”

The researchers were befuddled. “We were really disappointed, almost desperate about what to do,” said Yanagisawa.

As nocturnal animals eat more at night, he decided they should study the mice after dark. One of his students, Richard Chemelli, MD, bought an infrared video camera from Radio Shack, filming the first 4 hours of the mice’s active period for several nights.

After watching the footage, “Rick called me and said, ‘Let’s get into the lab,’ ” said Willie. “It was four of us on a Saturday looking at these videos, saying, ‘What the heck is this mouse doing?’ ”

While exploring their habitat, the knockout mice would randomly fall over, pop back up after a minute or so, and resume normal activity. This happened over and over — and the scientists were unsure why.

They began monitoring the mice’s brains during these episodes — and made a startling discovery.

The mice weren’t having seizures. They were shifting directly into REM sleep, bypassing the non-REM stage, then quickly toggling back to wake mode.

“That’s when we knew these animals had something akin to narcolepsy,” said Willie.

The team recruited Thomas Scammell, MD, a Harvard neurologist, to investigate whether modafinil — an anti-narcoleptic drug without a clear mechanism — affected orexin neurons.

Two hours after injecting the mice with the medication, the scientists sacrificed them and stained their brains. Remarkably, the number of neurons showing orexin activity had increased ninefold. It seemed modafinil worked by activating the orexin system.

These findings had the potential to crack open the science of narcolepsy, one of the most mysterious sleep disorders.

Unless, of course, another team did it first.

 

The Mystery of Narcolepsy

Yet another multiple discovery, narcolepsy was first described by two scientists — one in Germany, the other in France — within a short span in the late 1800s.

It would be more than a hundred years before anyone understood the disorder’s cause, even though it affects about 1 in 2000 people.

“Patients were often labeled as lazy and malingerers,” said Kilduff, “since they were sleepy all the time and had this weird motor behavior called cataplexy” or the sudden loss of muscle tone.

In the early 1970s, William Dement, MD, PhD — “the father of sleep medicine” — was searching for a narcoleptic cat to study. He couldn’t find a feline, but several colleagues mentioned dogs with narcolepsy-like symptoms.

Dement, who died in 2020, had found his newest research subjects.

In 1973, he started a narcoleptic dog colony at Stanford University in Palo Alto, California. At first, he focused on poodles and beagles. After discovering their narcolepsy wasn’t genetic, he pivoted to dobermans and labradors. Their narcolepsy was inherited, so he could breed them to populate the colony.

Although human narcolepsy is rarely genetic, it’s otherwise a lot like the version in these dogs.

Both involve daytime sleepiness, “pathological” bouts of REM sleep, and the loss of muscle tone in response to emotions, often positive ones.

The researchers hoped the canines could unlock a treatment for human narcolepsy. They began laying out a path of dog kibble, then injecting the dogs with drugs such as selective serotonin reuptake inhibitors. They wanted to see what might help them stay awake as they excitedly chowed down.

Kilduff also started a molecular genetics program, trying to identify the genetic defect behind canine narcolepsy. But after a parvovirus outbreak, Kilduff resigned from the project, drained from the strain of seeing so many dogs die.

A decade after his departure from the dog colony, his work would dramatically intersect with that of his successor, Emmanuel Mignot, MD, PhD.

“I thought I had closed the narcolepsy chapter in my life forever,” said Kilduff. “Then in 1998, we described this novel neuropeptide, hypocretin, that turned out to be the key to understanding the disorder.”

 

Narcoleptic Dogs in California, Mutant Mice in Texas

It was modafinil — the same anti-narcoleptic drug Yanagisawa’s team studied — that brought Emmanuel Mignot to the United States. After training as a pharmacologist in France, his home country sent him to Stanford to study the drug, which was discovered by French scientists, as his required military service.

As Kilduff’s replacement at the dog colony, his goal was to figure out how modafinil worked, hoping to attract a US company to develop the drug.

The plan succeeded. Modafinil became Provigil, a billion-dollar narcolepsy drug, and Mignot became “completely fascinated” with the disorder.

“I realized quickly that there was no way we’d find the cause of narcolepsy by finding the mode of action of this drug,” Mignot said. “Most likely, the drug was acting downstream, not at the cause of the disorder.”

To discover the answer, he needed to become a geneticist. And so began his 11-year odyssey to find the cause of canine narcolepsy.

After mapping the dog genome, Mignot set out to find the smallest stretch of chromosome that the narcoleptic animals had in common. “For a very long time, we were stuck with a relatively large region [of DNA],” he recalls. “It was a no man’s land.” 

Within that region was the gene for the hypocretin/orexin-2 receptor — the same receptor that Yanagisawa had identified in his first orexin paper. Mignot didn’t immediately pursue that gene as a possibility — even though his students suggested it. Why?

“The decision was simply: Should we lose time to test a possible candidate [gene] among many?” Mignot said.

As Mignot studied dog DNA in California, Yanagisawa was creating mutant mice in Texas. Unbeknownst to either scientist, their work was about to converge.

 

What Happened Next Is Somewhat Disputed 

After diagnosing his mice with narcolepsy, Yanagisawa opted not to share this finding with Mignot, though he knew about Mignot’s interest in the condition. Instead, he asked a colleague to find out how far along Mignot was in his genetics research.

According to Yanagisawa, his colleague didn’t realize how quickly DNA sequencing could happen once a target gene was identified. At a sleep meeting, “he showed Emmanuel all of our raw data. Almost accidentally, he disclosed our findings,” he said. “It was a shock for me.” 

Unsure whether he was part of the orexin group, Mignot decided not to reveal that he’d identified the hypocretin/orexin-2 receptor gene as the faulty one in his narcoleptic dogs.

Although he didn’t share this finding, Mignot said he did offer to speak with the lead researcher to see if their findings were the same. If they were, they could jointly submit their articles. But Mignot never heard back.

Meanwhile, back at his lab, Mignot buckled down. While he wasn’t convinced the mouse data proved anything, it did give him the motivation to move faster.

Within weeks, he submitted his findings to Cell, revealing a mutation in the hypocretin/orexin-2 receptor gene as the cause of canine narcolepsy. According to Yanagisawa, the journal’s editor invited him to peer-review the paper, tipping him off to its existence.

“I told him I had a conflict of interest,” said Yanagisawa. “And then we scrambled to finish our manuscript. We wrote up the paper within almost 5 days.”

For a moment, it seemed both papers would be published together in Cell. Instead, on August 6, 1999, Mignot’s study was splashed solo across the journal’s cover.

“At the time, our team was pissed off, but looking back, what else could Emmanuel have done?” said Willie, who was part of Yanagisawa’s team. “The grant he’d been working on for years was at risk. He had it within his power to do the final experiments. Of course he was going to finish.”

Two weeks later, Yanagisawa’s findings followed, also in Cell.

His paper proposed knockout mice as a model for human narcolepsy and orexin as a key regulator of the sleep/wake cycle. With orexin-activated neurons branching into other areas of the brain, the peptide seemed to promote wakefulness by synchronizing several arousal neurotransmitters, such as serotonin, norepinephrine, and histamine.

“If you don’t have orexin, each of those systems can still function, but they’re not as coordinated,” said Willie. “If you have narcolepsy, you’re capable of wakefulness, and you’re capable of sleep. What you can’t do is prevent inappropriately switching between states.”

Together, the two papers painted a clear picture: Narcolepsy was the result of a dysfunction in the hypocretin/orexin system.

After more than a century, the cause of narcolepsy was starting to come into focus.

“This was blockbuster,” said Willie.

By itself, either finding — one in dogs, one in mice — might have been met with skepticism. But in combination, they offered indisputable evidence about narcolepsy’s cause.

 

The Human Brains in Your Fridge Hold Secrets

Jerome Siegel had been searching for the cause of human narcolepsy for years. A PhD and professor at the University of California, Los Angeles, he had managed to acquire four human narcoleptic brains. As laughter is often the trigger for the sudden shift to REM sleep in humans, he focused on the amygdala, an area linked to emotion.

“I looked in the amygdala and didn’t see anything,” he said. “So the brains stayed in my refrigerator for probably 10 years.” 

Then he was invited to review Yanagisawa’s study in Cell. The lightbulb clicked on: Maybe the hypothalamus — not the amygdala — was the area of abnormality. He and his team dug out the decade-old brains.

When they stained the brains, the massive loss of hypocretin-activated neurons was hard to miss: On average, the narcoleptic brains had only about 7000 of the cells versus 70,000 in the average human brain. The scientists also noticed scar tissue in the hypothalamus, indicating that the neurons had at some point died, rather than being absent from birth.

What Siegel didn’t know: Mignot had also acquired a handful of human narcoleptic brains.

Already, he had coauthored a study showing that hypocretin/orexin was undetectable in the cerebrospinal fluid of the majority of the people with narcolepsy his team tested. It seemed clear that the hypocretin/orexin system was flawed — or even broken — in people with the condition.

“It looked like the cause of narcolepsy in humans was indeed this lack of orexin in the brain,” he said. “That was the hypothesis immediately. To me, this is when we established that narcolepsy in humans was due to a lack of orexin. The next thing was to check that the cells were missing.” 

Now he could do exactly that.

As expected, Mignot’s team observed a dramatic loss of hypocretin/orexin cells in the narcoleptic brains. They also noticed that a different cell type in the hypothalamus was unaffected. This implied the damage was specific to the hypocretin-activated cells and supported a hunch they already had: That the deficit was the result not of a genetic defect but of an autoimmune attack. (It’s a hypothesis Mignot has spent the last 15 years proving.)

It wasn’t until a gathering in Hawaii, in late August 2000, that the two realized the overlap of their work.

To celebrate his team’s finding, Mignot had invited a group of researchers to Big Island. With his paper scheduled for publication on September 1, he felt comfortable presenting his findings to his guests, which included Siegel.

Until then, “I didn’t know what he had found, and he didn’t know what I had found, which basically was the same thing,” said Siegel.

In yet another strange twist, the two papers were published just weeks apart, simultaneously revealing that human narcoleptics have a depleted supply of the neurons that bind to hypocretin/orexin. The cause of the disorder was at last a certainty.

“Even if I was first, what does it matter? In the end, you need confirmation,” said Mignot. “You need multiple people to make sure that it’s true. It’s good science when things like this happen.”

 

How All of This Changed Medicine

Since these groundbreaking discoveries, the diagnosis of narcolepsy has become much simpler. Lab tests can now easily measure hypocretin in cerebrospinal fluid, providing a definitive diagnosis.

But the development of narcolepsy treatments has lagged — even though hypocretin/orexin replacement therapy is the obvious answer.

“Almost 25 years have elapsed, and there’s no such therapeutic on the market,” said Kilduff, who now works for SRI International, a non-profit research and development institute.

That’s partly because agonists — drugs that bind to receptors in the brain — are challenging to create, as this requires mimicking the activating molecule’s structure, like copying the grooves of an intricate key.

Antagonists, by comparison, are easier to develop. These act as a gate, blocking access to the receptors. As a result, drugs that promote sleep by thwarting hypocretin/orexin have emerged more quickly, providing a flurry of new options for people with insomnia. The first, suvorexant, was launched in 2014. Two others followed in recent years.

Researchers are hopeful a hypocretin/orexin agonist is on the horizon.

“This is a very hot area of drug development,” said Kilduff. “It’s just a matter of who’s going to get the drug to market first.”

 

One More Hypocretin/Orexin Surprise — and It Could Be The Biggest

Several years ago, Siegel’s lab received what was supposed to be a healthy human brain — one they could use as a comparison for narcoleptic brains. But researcher Thomas Thannickal, PhD, lead author of the UCLA study linking hypocretin loss to human narcolepsy, noticed something strange: This brain had significantly more hypocretin neurons than average.

Was this due to a seizure? A traumatic death? Siegel called the brain bank to request the donor’s records. He was told they were missing.

Years later, Siegel happened to be visiting the brain bank for another project and found himself in a room adjacent to the medical records. “Nobody was there,” he said, “so I just opened a drawer.”

Shuffling through the brain bank’s files, Siegel found the medical records he’d been told were lost. In the file was a note from the donor, explaining that he was a former heroin addict.

“I almost fell out of my chair,” said Siegel. “I realized this guy’s heroin addiction likely had something to do with his very unusual brain.” 

Obviously, opioids affected the orexin system. But how? 

“It’s when people are happy that this peptide is released,” said Siegel. “The hypocretin system is not just related to alertness. It’s related to pleasure.” 

As Yanagisawa observed early on, hypocretin/orexin does indeed play a role in eating — just not the one he initially thought. The peptides prompted pleasure seeking. So the rodents ate. 

In 2018, after acquiring five more brains, Siegel’s group published a study in Translational Medicine showing 54% more detectable hypocretin neurons in the brains of heroin addicts than in those of control individuals.

In 2022, another breakthrough: His team showed that morphine significantly altered the pathways of hypocretin neurons in mice, sending their axons into brain regions associated with addiction. Then, when they removed the mice’s hypocretin neurons and discontinued their daily morphine dose, the rodents showed no symptoms of opioid withdrawal.

This fits the connection with narcolepsy: Among the standard treatments for the condition are amphetamines and other stimulants, which all have addictive potential. Yet, “narcoleptics never abuse these drugs,” Siegel said. “They seem to be uniquely resistant to addiction.”

This could powerfully change the way opioids are administered.

“If you prevent the hypocretin response to opioids, you may be able to prevent opioid addiction,” said Siegel. In other words, blocking the hypocretin system with a drug like those used to treat insomnia may allow patients to experience the pain-relieving benefits of opioids — without the risk for addiction.

His team is currently investigating treatments targeting the hypocretin/orexin system for opioid addiction.

In a study published in July, they found that mice who received suvorexant — the drug for insomnia — didn’t anticipate their daily dose of opioids the way other rodents did. This suggests the medication prevented addiction, without diminishing the pain-relieving effect of opioids.

If it translates to humans, this discovery could potentially save millions of lives.

“I think it’s just us working on this,” said Siegel.

But with hypocretin/orexin, you never know.

A version of this article appeared on Medscape.com.

It was 1996, and Masashi Yanagisawa was on the brink of his next discovery.

The Japanese scientist had arrived at the University of Texas Southwestern in Dallas 5 years earlier, setting up his own lab at age 31. After earning his medical degree, he’d gained notoriety as a PhD student when he discovered endothelin, the body’s most potent vasoconstrictor.

Yanagisawa was about to prove this wasn’t a first-timer’s fluke.

His focus was G-protein–coupled receptors (GPCRs), cell surface receptors that respond to a range of molecules and a popular target for drug discovery. The Human Genome Project had just revealed a slew of newly discovered receptors, or “orphan” GPCRs, and identifying an activating molecule could yield a new drug. (That vasoconstrictor endothelin was one such success story, leading to four new drug approvals in the United States over the past quarter century.) 

Yanagisawa and his team created 50 cell lines, each expressing one orphan receptor. They applied animal tissue to every line, along with a calcium-sensitive dye. If the cells glowed under the microscope, they had a hit.

“He was basically doing an elaborate fishing expedition,” said Jon Willie, MD, PhD, an associate professor of neurosurgery at Washington University School of Medicine in St. Louis, Missouri, who would later join Yanagisawa’s team.

It wasn’t long before the neon-green fluorescence signaled a match. After isolating the activating molecule, the scientists realized they were dealing with two neuropeptides.

No one had ever seen these proteins before. And no one knew their discovery would set off a decades-long journey that would finally solve a century-old medical mystery — and may even fix one of the biggest health crises of our time, as revealed by research published earlier in 2024. It’s a story of strange coincidences, serendipitous discoveries, and quirky details. Most of all, it’s a fascinating example of how basic science can revolutionize medicine — and how true breakthroughs happen over time and in real time.

 

But That’s Basic Science for You

Most basic science studies — the early, foundational research that provides the building blocks for science that follows — don’t lead to medical breakthroughs. But some do, often in surprising ways.

Also called curiosity-driven research, basic science aims to fill knowledge gaps to keep science moving, even if the trajectory isn’t always clear.

“The people working on the basic research that led to discoveries that transformed the modern world had no idea at the time,” said Isobel Ronai, PhD, a postdoctoral fellow in life sciences at Harvard University, Cambridge, Massachusetts. “Often, these stories can only be seen in hindsight,” sometimes decades later.

Case in point: For molecular biology techniques — things like DNA sequencing and gene targeting — the lag between basic science and breakthrough is, on average, 23 years. While many of the resulting techniques have received Nobel Prizes, few of the foundational discoveries have been awarded such accolades.

“The scientific glory is more often associated with the downstream applications,” said Ronai. “The importance of basic research can get lost. But it is the foundation for any future application, such as drug development.”

As funding is increasingly funneled toward applied research, basic science can require a certain persistence. What this under-appreciation can obscure is the pathway to discovery — which is often as compelling as the end result, full of unpredictable twists, turns, and even interpersonal intrigue.

And then there’s the fascinating — and definitely complicated — phenomenon of multiple independent discoveries.

As in: What happens when two independent teams discover the same thing at the same time?

 

Back to Yanagisawa’s Lab ...

... where he and his team learned a few things about those new neuropeptides. Rat brain studies pinpointed the lateral hypothalamus as the peptides’ area of activity — a region often called the brain’s feeding center.

“If you destroy that part of the brain, animals lose appetite,” said Yanagisawa. So these peptides must control feeding, the scientists thought.

Sure enough, injecting the proteins into rat brains led the rodents to start eating.

Satisfied, the team named them “orexin-A” and “orexin-B,” for the Greek word “orexis,” meaning appetite. The brain receptors became “orexin-1” and “orexin-2.” The team prepared to publish its findings in Cell.

But another group beat them to it.

 

Introducing the ‘Hypocretins’

In early January 1998, a team of Scripps Research Institute scientists, led by J. Gregor Sutcliffe, PhD, released a paper in the journal PNAS. They described a gene encoding for the precursor to two neuropeptides

As the peptides were in the hypothalamus and structurally like secretin (a gut hormone), they called them “hypocretins.” The hypocretin peptides excited neurons in the hypothalamus, and later that year, the scientists discovered that the neurons’ branches extended, tentacle-like, throughout the brain. “Many of the connected areas were involved in sleep-wake control,” said Thomas Kilduff, PhD, who joined the Sutcliffe lab just weeks before the hypocretin discovery. At the time, however, the significance of this finding was not yet clear.

Weeks later, in February 1998, Yanagisawa’s paper came out.

Somehow, two groups, over 1000 miles apart, had stumbled on the same neuropeptides at the same time.

“I first heard about [Yanagisawa’s] paper on NBC Nightly News,” recalls Kilduff. “I was skiing in the mountains, so I had to wait until Monday to get back to the lab to see what the paper was all about.”

He realized that Yanagisawa’s orexin was his lab’s hypocretin, although the study didn’t mention another team’s discovery.

“There may have been accusations. But as far as I know, it’s because [Yanagisawa] didn’t know [about the other paper],” said Willie. “This was not something he produced in 2 months. This was clearly years of work.” 

 

‘Multiple Discovery’ Happens More Often Than You Think

In the mid-20th century, sociologist Robert Merton described the phenomenon of “multiple discovery,” where many scientific discoveries or inventions are made independently at roughly the same time.

“This happens much more frequently in scientific research than people suppose,” said David Pendlebury, head of research analysis at Clarivate’s Institute for Scientific Information, the analytics company’s research arm. (Last year, Pendlebury flagged the hypocretin/orexin discovery for Clarivate’s prestigious Citations Laureates award, an honor that aims to predict, often successfully, who will go on to win the Nobel Prize.) 

“People have this idea of the lone researcher making a brilliant discovery,” Pendlebury said. “But more and more, teams find things at the same time.” 

While this can — and does — lead to squabbling about who deserves credit, the desire to be first can also be highly motivating, said Mike Schneider, PhD, an assistant professor of philosophy at the University of Missouri, Columbia, who studies the social dynamics of science, potentially leading to faster scientific advancement.

The downside? If two groups produce the same or similar results, but one publishes first, scientific journals tend to reject the second, citing a lack of novelty.

Yet duplicating research is a key step in confirming the validity of a discovery.

That’s why, in 2018, the journal PLOS Biology created a provision for “scooped” scientists, allowing them to submit their paper within 6 months of the first as a complementary finding. Instead of viewing this as redundancy, the editors believe it adds robustness to the research.

 

‘What the Heck Is This Mouse Doing?’

Even though he’d been scooped, Yanagisawa forged on to the next challenge: Confirming whether orexin regulated feeding.

He began breeding mice missing the orexin gene. His team expected these “knockout” mice to eat less, resulting in a thinner body than other rodents. To the contrary, “they were on average fatter,” said Willie. “They were eating less but weighed more, indicating a slower metabolism.”

The researchers were befuddled. “We were really disappointed, almost desperate about what to do,” said Yanagisawa.

As nocturnal animals eat more at night, he decided they should study the mice after dark. One of his students, Richard Chemelli, MD, bought an infrared video camera from Radio Shack, filming the first 4 hours of the mice’s active period for several nights.

After watching the footage, “Rick called me and said, ‘Let’s get into the lab,’ ” said Willie. “It was four of us on a Saturday looking at these videos, saying, ‘What the heck is this mouse doing?’ ”

While exploring their habitat, the knockout mice would randomly fall over, pop back up after a minute or so, and resume normal activity. This happened over and over — and the scientists were unsure why.

They began monitoring the mice’s brains during these episodes — and made a startling discovery.

The mice weren’t having seizures. They were shifting directly into REM sleep, bypassing the non-REM stage, then quickly toggling back to wake mode.

“That’s when we knew these animals had something akin to narcolepsy,” said Willie.

The team recruited Thomas Scammell, MD, a Harvard neurologist, to investigate whether modafinil — an anti-narcoleptic drug without a clear mechanism — affected orexin neurons.

Two hours after injecting the mice with the medication, the scientists sacrificed them and stained their brains. Remarkably, the number of neurons showing orexin activity had increased ninefold. It seemed modafinil worked by activating the orexin system.

These findings had the potential to crack open the science of narcolepsy, one of the most mysterious sleep disorders.

Unless, of course, another team did it first.

 

The Mystery of Narcolepsy

Yet another multiple discovery, narcolepsy was first described by two scientists — one in Germany, the other in France — within a short span in the late 1800s.

It would be more than a hundred years before anyone understood the disorder’s cause, even though it affects about 1 in 2000 people.

“Patients were often labeled as lazy and malingerers,” said Kilduff, “since they were sleepy all the time and had this weird motor behavior called cataplexy” or the sudden loss of muscle tone.

In the early 1970s, William Dement, MD, PhD — “the father of sleep medicine” — was searching for a narcoleptic cat to study. He couldn’t find a feline, but several colleagues mentioned dogs with narcolepsy-like symptoms.

Dement, who died in 2020, had found his newest research subjects.

In 1973, he started a narcoleptic dog colony at Stanford University in Palo Alto, California. At first, he focused on poodles and beagles. After discovering their narcolepsy wasn’t genetic, he pivoted to dobermans and labradors. Their narcolepsy was inherited, so he could breed them to populate the colony.

Although human narcolepsy is rarely genetic, it’s otherwise a lot like the version in these dogs.

Both involve daytime sleepiness, “pathological” bouts of REM sleep, and the loss of muscle tone in response to emotions, often positive ones.

The researchers hoped the canines could unlock a treatment for human narcolepsy. They began laying out a path of dog kibble, then injecting the dogs with drugs such as selective serotonin reuptake inhibitors. They wanted to see what might help them stay awake as they excitedly chowed down.

Kilduff also started a molecular genetics program, trying to identify the genetic defect behind canine narcolepsy. But after a parvovirus outbreak, Kilduff resigned from the project, drained from the strain of seeing so many dogs die.

A decade after his departure from the dog colony, his work would dramatically intersect with that of his successor, Emmanuel Mignot, MD, PhD.

“I thought I had closed the narcolepsy chapter in my life forever,” said Kilduff. “Then in 1998, we described this novel neuropeptide, hypocretin, that turned out to be the key to understanding the disorder.”

 

Narcoleptic Dogs in California, Mutant Mice in Texas

It was modafinil — the same anti-narcoleptic drug Yanagisawa’s team studied — that brought Emmanuel Mignot to the United States. After training as a pharmacologist in France, his home country sent him to Stanford to study the drug, which was discovered by French scientists, as his required military service.

As Kilduff’s replacement at the dog colony, his goal was to figure out how modafinil worked, hoping to attract a US company to develop the drug.

The plan succeeded. Modafinil became Provigil, a billion-dollar narcolepsy drug, and Mignot became “completely fascinated” with the disorder.

“I realized quickly that there was no way we’d find the cause of narcolepsy by finding the mode of action of this drug,” Mignot said. “Most likely, the drug was acting downstream, not at the cause of the disorder.”

To discover the answer, he needed to become a geneticist. And so began his 11-year odyssey to find the cause of canine narcolepsy.

After mapping the dog genome, Mignot set out to find the smallest stretch of chromosome that the narcoleptic animals had in common. “For a very long time, we were stuck with a relatively large region [of DNA],” he recalls. “It was a no man’s land.” 

Within that region was the gene for the hypocretin/orexin-2 receptor — the same receptor that Yanagisawa had identified in his first orexin paper. Mignot didn’t immediately pursue that gene as a possibility — even though his students suggested it. Why?

“The decision was simply: Should we lose time to test a possible candidate [gene] among many?” Mignot said.

As Mignot studied dog DNA in California, Yanagisawa was creating mutant mice in Texas. Unbeknownst to either scientist, their work was about to converge.

 

What Happened Next Is Somewhat Disputed 

After diagnosing his mice with narcolepsy, Yanagisawa opted not to share this finding with Mignot, though he knew about Mignot’s interest in the condition. Instead, he asked a colleague to find out how far along Mignot was in his genetics research.

According to Yanagisawa, his colleague didn’t realize how quickly DNA sequencing could happen once a target gene was identified. At a sleep meeting, “he showed Emmanuel all of our raw data. Almost accidentally, he disclosed our findings,” he said. “It was a shock for me.” 

Unsure whether he was part of the orexin group, Mignot decided not to reveal that he’d identified the hypocretin/orexin-2 receptor gene as the faulty one in his narcoleptic dogs.

Although he didn’t share this finding, Mignot said he did offer to speak with the lead researcher to see if their findings were the same. If they were, they could jointly submit their articles. But Mignot never heard back.

Meanwhile, back at his lab, Mignot buckled down. While he wasn’t convinced the mouse data proved anything, it did give him the motivation to move faster.

Within weeks, he submitted his findings to Cell, revealing a mutation in the hypocretin/orexin-2 receptor gene as the cause of canine narcolepsy. According to Yanagisawa, the journal’s editor invited him to peer-review the paper, tipping him off to its existence.

“I told him I had a conflict of interest,” said Yanagisawa. “And then we scrambled to finish our manuscript. We wrote up the paper within almost 5 days.”

For a moment, it seemed both papers would be published together in Cell. Instead, on August 6, 1999, Mignot’s study was splashed solo across the journal’s cover.

“At the time, our team was pissed off, but looking back, what else could Emmanuel have done?” said Willie, who was part of Yanagisawa’s team. “The grant he’d been working on for years was at risk. He had it within his power to do the final experiments. Of course he was going to finish.”

Two weeks later, Yanagisawa’s findings followed, also in Cell.

His paper proposed knockout mice as a model for human narcolepsy and orexin as a key regulator of the sleep/wake cycle. With orexin-activated neurons branching into other areas of the brain, the peptide seemed to promote wakefulness by synchronizing several arousal neurotransmitters, such as serotonin, norepinephrine, and histamine.

“If you don’t have orexin, each of those systems can still function, but they’re not as coordinated,” said Willie. “If you have narcolepsy, you’re capable of wakefulness, and you’re capable of sleep. What you can’t do is prevent inappropriately switching between states.”

Together, the two papers painted a clear picture: Narcolepsy was the result of a dysfunction in the hypocretin/orexin system.

After more than a century, the cause of narcolepsy was starting to come into focus.

“This was blockbuster,” said Willie.

By itself, either finding — one in dogs, one in mice — might have been met with skepticism. But in combination, they offered indisputable evidence about narcolepsy’s cause.

 

The Human Brains in Your Fridge Hold Secrets

Jerome Siegel had been searching for the cause of human narcolepsy for years. A PhD and professor at the University of California, Los Angeles, he had managed to acquire four human narcoleptic brains. As laughter is often the trigger for the sudden shift to REM sleep in humans, he focused on the amygdala, an area linked to emotion.

“I looked in the amygdala and didn’t see anything,” he said. “So the brains stayed in my refrigerator for probably 10 years.” 

Then he was invited to review Yanagisawa’s study in Cell. The lightbulb clicked on: Maybe the hypothalamus — not the amygdala — was the area of abnormality. He and his team dug out the decade-old brains.

When they stained the brains, the massive loss of hypocretin-activated neurons was hard to miss: On average, the narcoleptic brains had only about 7000 of the cells versus 70,000 in the average human brain. The scientists also noticed scar tissue in the hypothalamus, indicating that the neurons had at some point died, rather than being absent from birth.

What Siegel didn’t know: Mignot had also acquired a handful of human narcoleptic brains.

Already, he had coauthored a study showing that hypocretin/orexin was undetectable in the cerebrospinal fluid of the majority of the people with narcolepsy his team tested. It seemed clear that the hypocretin/orexin system was flawed — or even broken — in people with the condition.

“It looked like the cause of narcolepsy in humans was indeed this lack of orexin in the brain,” he said. “That was the hypothesis immediately. To me, this is when we established that narcolepsy in humans was due to a lack of orexin. The next thing was to check that the cells were missing.” 

Now he could do exactly that.

As expected, Mignot’s team observed a dramatic loss of hypocretin/orexin cells in the narcoleptic brains. They also noticed that a different cell type in the hypothalamus was unaffected. This implied the damage was specific to the hypocretin-activated cells and supported a hunch they already had: That the deficit was the result not of a genetic defect but of an autoimmune attack. (It’s a hypothesis Mignot has spent the last 15 years proving.)

It wasn’t until a gathering in Hawaii, in late August 2000, that the two realized the overlap of their work.

To celebrate his team’s finding, Mignot had invited a group of researchers to Big Island. With his paper scheduled for publication on September 1, he felt comfortable presenting his findings to his guests, which included Siegel.

Until then, “I didn’t know what he had found, and he didn’t know what I had found, which basically was the same thing,” said Siegel.

In yet another strange twist, the two papers were published just weeks apart, simultaneously revealing that human narcoleptics have a depleted supply of the neurons that bind to hypocretin/orexin. The cause of the disorder was at last a certainty.

“Even if I was first, what does it matter? In the end, you need confirmation,” said Mignot. “You need multiple people to make sure that it’s true. It’s good science when things like this happen.”

 

How All of This Changed Medicine

Since these groundbreaking discoveries, the diagnosis of narcolepsy has become much simpler. Lab tests can now easily measure hypocretin in cerebrospinal fluid, providing a definitive diagnosis.

But the development of narcolepsy treatments has lagged — even though hypocretin/orexin replacement therapy is the obvious answer.

“Almost 25 years have elapsed, and there’s no such therapeutic on the market,” said Kilduff, who now works for SRI International, a non-profit research and development institute.

That’s partly because agonists — drugs that bind to receptors in the brain — are challenging to create, as this requires mimicking the activating molecule’s structure, like copying the grooves of an intricate key.

Antagonists, by comparison, are easier to develop. These act as a gate, blocking access to the receptors. As a result, drugs that promote sleep by thwarting hypocretin/orexin have emerged more quickly, providing a flurry of new options for people with insomnia. The first, suvorexant, was launched in 2014. Two others followed in recent years.

Researchers are hopeful a hypocretin/orexin agonist is on the horizon.

“This is a very hot area of drug development,” said Kilduff. “It’s just a matter of who’s going to get the drug to market first.”

 

One More Hypocretin/Orexin Surprise — and It Could Be The Biggest

Several years ago, Siegel’s lab received what was supposed to be a healthy human brain — one they could use as a comparison for narcoleptic brains. But researcher Thomas Thannickal, PhD, lead author of the UCLA study linking hypocretin loss to human narcolepsy, noticed something strange: This brain had significantly more hypocretin neurons than average.

Was this due to a seizure? A traumatic death? Siegel called the brain bank to request the donor’s records. He was told they were missing.

Years later, Siegel happened to be visiting the brain bank for another project and found himself in a room adjacent to the medical records. “Nobody was there,” he said, “so I just opened a drawer.”

Shuffling through the brain bank’s files, Siegel found the medical records he’d been told were lost. In the file was a note from the donor, explaining that he was a former heroin addict.

“I almost fell out of my chair,” said Siegel. “I realized this guy’s heroin addiction likely had something to do with his very unusual brain.” 

Obviously, opioids affected the orexin system. But how? 

“It’s when people are happy that this peptide is released,” said Siegel. “The hypocretin system is not just related to alertness. It’s related to pleasure.” 

As Yanagisawa observed early on, hypocretin/orexin does indeed play a role in eating — just not the one he initially thought. The peptides prompted pleasure seeking. So the rodents ate. 

In 2018, after acquiring five more brains, Siegel’s group published a study in Translational Medicine showing 54% more detectable hypocretin neurons in the brains of heroin addicts than in those of control individuals.

In 2022, another breakthrough: His team showed that morphine significantly altered the pathways of hypocretin neurons in mice, sending their axons into brain regions associated with addiction. Then, when they removed the mice’s hypocretin neurons and discontinued their daily morphine dose, the rodents showed no symptoms of opioid withdrawal.

This fits the connection with narcolepsy: Among the standard treatments for the condition are amphetamines and other stimulants, which all have addictive potential. Yet, “narcoleptics never abuse these drugs,” Siegel said. “They seem to be uniquely resistant to addiction.”

This could powerfully change the way opioids are administered.

“If you prevent the hypocretin response to opioids, you may be able to prevent opioid addiction,” said Siegel. In other words, blocking the hypocretin system with a drug like those used to treat insomnia may allow patients to experience the pain-relieving benefits of opioids — without the risk for addiction.

His team is currently investigating treatments targeting the hypocretin/orexin system for opioid addiction.

In a study published in July, they found that mice who received suvorexant — the drug for insomnia — didn’t anticipate their daily dose of opioids the way other rodents did. This suggests the medication prevented addiction, without diminishing the pain-relieving effect of opioids.

If it translates to humans, this discovery could potentially save millions of lives.

“I think it’s just us working on this,” said Siegel.

But with hypocretin/orexin, you never know.

A version of this article appeared on Medscape.com.

It was 1996, and Masashi Yanagisawa was on the brink of his next discovery.

The Japanese scientist had arrived at the University of Texas Southwestern in Dallas 5 years earlier, setting up his own lab at age 31. After earning his medical degree, he’d gained notoriety as a PhD student when he discovered endothelin, the body’s most potent vasoconstrictor.

Yanagisawa was about to prove this wasn’t a first-timer’s fluke.

His focus was G-protein–coupled receptors (GPCRs), cell surface receptors that respond to a range of molecules and a popular target for drug discovery. The Human Genome Project had just revealed a slew of newly discovered receptors, or “orphan” GPCRs, and identifying an activating molecule could yield a new drug. (That vasoconstrictor endothelin was one such success story, leading to four new drug approvals in the United States over the past quarter century.) 

Yanagisawa and his team created 50 cell lines, each expressing one orphan receptor. They applied animal tissue to every line, along with a calcium-sensitive dye. If the cells glowed under the microscope, they had a hit.

“He was basically doing an elaborate fishing expedition,” said Jon Willie, MD, PhD, an associate professor of neurosurgery at Washington University School of Medicine in St. Louis, Missouri, who would later join Yanagisawa’s team.

It wasn’t long before the neon-green fluorescence signaled a match. After isolating the activating molecule, the scientists realized they were dealing with two neuropeptides.

No one had ever seen these proteins before. And no one knew their discovery would set off a decades-long journey that would finally solve a century-old medical mystery — and may even fix one of the biggest health crises of our time, as revealed by research published earlier in 2024. It’s a story of strange coincidences, serendipitous discoveries, and quirky details. Most of all, it’s a fascinating example of how basic science can revolutionize medicine — and how true breakthroughs happen over time and in real time.

 

But That’s Basic Science for You

Most basic science studies — the early, foundational research that provides the building blocks for science that follows — don’t lead to medical breakthroughs. But some do, often in surprising ways.

Also called curiosity-driven research, basic science aims to fill knowledge gaps to keep science moving, even if the trajectory isn’t always clear.

“The people working on the basic research that led to discoveries that transformed the modern world had no idea at the time,” said Isobel Ronai, PhD, a postdoctoral fellow in life sciences at Harvard University, Cambridge, Massachusetts. “Often, these stories can only be seen in hindsight,” sometimes decades later.

Case in point: For molecular biology techniques — things like DNA sequencing and gene targeting — the lag between basic science and breakthrough is, on average, 23 years. While many of the resulting techniques have received Nobel Prizes, few of the foundational discoveries have been awarded such accolades.

“The scientific glory is more often associated with the downstream applications,” said Ronai. “The importance of basic research can get lost. But it is the foundation for any future application, such as drug development.”

As funding is increasingly funneled toward applied research, basic science can require a certain persistence. What this under-appreciation can obscure is the pathway to discovery — which is often as compelling as the end result, full of unpredictable twists, turns, and even interpersonal intrigue.

And then there’s the fascinating — and definitely complicated — phenomenon of multiple independent discoveries.

As in: What happens when two independent teams discover the same thing at the same time?

 

Back to Yanagisawa’s Lab ...

... where he and his team learned a few things about those new neuropeptides. Rat brain studies pinpointed the lateral hypothalamus as the peptides’ area of activity — a region often called the brain’s feeding center.

“If you destroy that part of the brain, animals lose appetite,” said Yanagisawa. So these peptides must control feeding, the scientists thought.

Sure enough, injecting the proteins into rat brains led the rodents to start eating.

Satisfied, the team named them “orexin-A” and “orexin-B,” for the Greek word “orexis,” meaning appetite. The brain receptors became “orexin-1” and “orexin-2.” The team prepared to publish its findings in Cell.

But another group beat them to it.

 

Introducing the ‘Hypocretins’

In early January 1998, a team of Scripps Research Institute scientists, led by J. Gregor Sutcliffe, PhD, released a paper in the journal PNAS. They described a gene encoding for the precursor to two neuropeptides

As the peptides were in the hypothalamus and structurally like secretin (a gut hormone), they called them “hypocretins.” The hypocretin peptides excited neurons in the hypothalamus, and later that year, the scientists discovered that the neurons’ branches extended, tentacle-like, throughout the brain. “Many of the connected areas were involved in sleep-wake control,” said Thomas Kilduff, PhD, who joined the Sutcliffe lab just weeks before the hypocretin discovery. At the time, however, the significance of this finding was not yet clear.

Weeks later, in February 1998, Yanagisawa’s paper came out.

Somehow, two groups, over 1000 miles apart, had stumbled on the same neuropeptides at the same time.

“I first heard about [Yanagisawa’s] paper on NBC Nightly News,” recalls Kilduff. “I was skiing in the mountains, so I had to wait until Monday to get back to the lab to see what the paper was all about.”

He realized that Yanagisawa’s orexin was his lab’s hypocretin, although the study didn’t mention another team’s discovery.

“There may have been accusations. But as far as I know, it’s because [Yanagisawa] didn’t know [about the other paper],” said Willie. “This was not something he produced in 2 months. This was clearly years of work.” 

 

‘Multiple Discovery’ Happens More Often Than You Think

In the mid-20th century, sociologist Robert Merton described the phenomenon of “multiple discovery,” where many scientific discoveries or inventions are made independently at roughly the same time.

“This happens much more frequently in scientific research than people suppose,” said David Pendlebury, head of research analysis at Clarivate’s Institute for Scientific Information, the analytics company’s research arm. (Last year, Pendlebury flagged the hypocretin/orexin discovery for Clarivate’s prestigious Citations Laureates award, an honor that aims to predict, often successfully, who will go on to win the Nobel Prize.) 

“People have this idea of the lone researcher making a brilliant discovery,” Pendlebury said. “But more and more, teams find things at the same time.” 

While this can — and does — lead to squabbling about who deserves credit, the desire to be first can also be highly motivating, said Mike Schneider, PhD, an assistant professor of philosophy at the University of Missouri, Columbia, who studies the social dynamics of science, potentially leading to faster scientific advancement.

The downside? If two groups produce the same or similar results, but one publishes first, scientific journals tend to reject the second, citing a lack of novelty.

Yet duplicating research is a key step in confirming the validity of a discovery.

That’s why, in 2018, the journal PLOS Biology created a provision for “scooped” scientists, allowing them to submit their paper within 6 months of the first as a complementary finding. Instead of viewing this as redundancy, the editors believe it adds robustness to the research.

 

‘What the Heck Is This Mouse Doing?’

Even though he’d been scooped, Yanagisawa forged on to the next challenge: Confirming whether orexin regulated feeding.

He began breeding mice missing the orexin gene. His team expected these “knockout” mice to eat less, resulting in a thinner body than other rodents. To the contrary, “they were on average fatter,” said Willie. “They were eating less but weighed more, indicating a slower metabolism.”

The researchers were befuddled. “We were really disappointed, almost desperate about what to do,” said Yanagisawa.

As nocturnal animals eat more at night, he decided they should study the mice after dark. One of his students, Richard Chemelli, MD, bought an infrared video camera from Radio Shack, filming the first 4 hours of the mice’s active period for several nights.

After watching the footage, “Rick called me and said, ‘Let’s get into the lab,’ ” said Willie. “It was four of us on a Saturday looking at these videos, saying, ‘What the heck is this mouse doing?’ ”

While exploring their habitat, the knockout mice would randomly fall over, pop back up after a minute or so, and resume normal activity. This happened over and over — and the scientists were unsure why.

They began monitoring the mice’s brains during these episodes — and made a startling discovery.

The mice weren’t having seizures. They were shifting directly into REM sleep, bypassing the non-REM stage, then quickly toggling back to wake mode.

“That’s when we knew these animals had something akin to narcolepsy,” said Willie.

The team recruited Thomas Scammell, MD, a Harvard neurologist, to investigate whether modafinil — an anti-narcoleptic drug without a clear mechanism — affected orexin neurons.

Two hours after injecting the mice with the medication, the scientists sacrificed them and stained their brains. Remarkably, the number of neurons showing orexin activity had increased ninefold. It seemed modafinil worked by activating the orexin system.

These findings had the potential to crack open the science of narcolepsy, one of the most mysterious sleep disorders.

Unless, of course, another team did it first.

 

The Mystery of Narcolepsy

Yet another multiple discovery, narcolepsy was first described by two scientists — one in Germany, the other in France — within a short span in the late 1800s.

It would be more than a hundred years before anyone understood the disorder’s cause, even though it affects about 1 in 2000 people.

“Patients were often labeled as lazy and malingerers,” said Kilduff, “since they were sleepy all the time and had this weird motor behavior called cataplexy” or the sudden loss of muscle tone.

In the early 1970s, William Dement, MD, PhD — “the father of sleep medicine” — was searching for a narcoleptic cat to study. He couldn’t find a feline, but several colleagues mentioned dogs with narcolepsy-like symptoms.

Dement, who died in 2020, had found his newest research subjects.

In 1973, he started a narcoleptic dog colony at Stanford University in Palo Alto, California. At first, he focused on poodles and beagles. After discovering their narcolepsy wasn’t genetic, he pivoted to dobermans and labradors. Their narcolepsy was inherited, so he could breed them to populate the colony.

Although human narcolepsy is rarely genetic, it’s otherwise a lot like the version in these dogs.

Both involve daytime sleepiness, “pathological” bouts of REM sleep, and the loss of muscle tone in response to emotions, often positive ones.

The researchers hoped the canines could unlock a treatment for human narcolepsy. They began laying out a path of dog kibble, then injecting the dogs with drugs such as selective serotonin reuptake inhibitors. They wanted to see what might help them stay awake as they excitedly chowed down.

Kilduff also started a molecular genetics program, trying to identify the genetic defect behind canine narcolepsy. But after a parvovirus outbreak, Kilduff resigned from the project, drained from the strain of seeing so many dogs die.

A decade after his departure from the dog colony, his work would dramatically intersect with that of his successor, Emmanuel Mignot, MD, PhD.

“I thought I had closed the narcolepsy chapter in my life forever,” said Kilduff. “Then in 1998, we described this novel neuropeptide, hypocretin, that turned out to be the key to understanding the disorder.”

 

Narcoleptic Dogs in California, Mutant Mice in Texas

It was modafinil — the same anti-narcoleptic drug Yanagisawa’s team studied — that brought Emmanuel Mignot to the United States. After training as a pharmacologist in France, his home country sent him to Stanford to study the drug, which was discovered by French scientists, as his required military service.

As Kilduff’s replacement at the dog colony, his goal was to figure out how modafinil worked, hoping to attract a US company to develop the drug.

The plan succeeded. Modafinil became Provigil, a billion-dollar narcolepsy drug, and Mignot became “completely fascinated” with the disorder.

“I realized quickly that there was no way we’d find the cause of narcolepsy by finding the mode of action of this drug,” Mignot said. “Most likely, the drug was acting downstream, not at the cause of the disorder.”

To discover the answer, he needed to become a geneticist. And so began his 11-year odyssey to find the cause of canine narcolepsy.

After mapping the dog genome, Mignot set out to find the smallest stretch of chromosome that the narcoleptic animals had in common. “For a very long time, we were stuck with a relatively large region [of DNA],” he recalls. “It was a no man’s land.” 

Within that region was the gene for the hypocretin/orexin-2 receptor — the same receptor that Yanagisawa had identified in his first orexin paper. Mignot didn’t immediately pursue that gene as a possibility — even though his students suggested it. Why?

“The decision was simply: Should we lose time to test a possible candidate [gene] among many?” Mignot said.

As Mignot studied dog DNA in California, Yanagisawa was creating mutant mice in Texas. Unbeknownst to either scientist, their work was about to converge.

 

What Happened Next Is Somewhat Disputed 

After diagnosing his mice with narcolepsy, Yanagisawa opted not to share this finding with Mignot, though he knew about Mignot’s interest in the condition. Instead, he asked a colleague to find out how far along Mignot was in his genetics research.

According to Yanagisawa, his colleague didn’t realize how quickly DNA sequencing could happen once a target gene was identified. At a sleep meeting, “he showed Emmanuel all of our raw data. Almost accidentally, he disclosed our findings,” he said. “It was a shock for me.” 

Unsure whether he was part of the orexin group, Mignot decided not to reveal that he’d identified the hypocretin/orexin-2 receptor gene as the faulty one in his narcoleptic dogs.

Although he didn’t share this finding, Mignot said he did offer to speak with the lead researcher to see if their findings were the same. If they were, they could jointly submit their articles. But Mignot never heard back.

Meanwhile, back at his lab, Mignot buckled down. While he wasn’t convinced the mouse data proved anything, it did give him the motivation to move faster.

Within weeks, he submitted his findings to Cell, revealing a mutation in the hypocretin/orexin-2 receptor gene as the cause of canine narcolepsy. According to Yanagisawa, the journal’s editor invited him to peer-review the paper, tipping him off to its existence.

“I told him I had a conflict of interest,” said Yanagisawa. “And then we scrambled to finish our manuscript. We wrote up the paper within almost 5 days.”

For a moment, it seemed both papers would be published together in Cell. Instead, on August 6, 1999, Mignot’s study was splashed solo across the journal’s cover.

“At the time, our team was pissed off, but looking back, what else could Emmanuel have done?” said Willie, who was part of Yanagisawa’s team. “The grant he’d been working on for years was at risk. He had it within his power to do the final experiments. Of course he was going to finish.”

Two weeks later, Yanagisawa’s findings followed, also in Cell.

His paper proposed knockout mice as a model for human narcolepsy and orexin as a key regulator of the sleep/wake cycle. With orexin-activated neurons branching into other areas of the brain, the peptide seemed to promote wakefulness by synchronizing several arousal neurotransmitters, such as serotonin, norepinephrine, and histamine.

“If you don’t have orexin, each of those systems can still function, but they’re not as coordinated,” said Willie. “If you have narcolepsy, you’re capable of wakefulness, and you’re capable of sleep. What you can’t do is prevent inappropriately switching between states.”

Together, the two papers painted a clear picture: Narcolepsy was the result of a dysfunction in the hypocretin/orexin system.

After more than a century, the cause of narcolepsy was starting to come into focus.

“This was blockbuster,” said Willie.

By itself, either finding — one in dogs, one in mice — might have been met with skepticism. But in combination, they offered indisputable evidence about narcolepsy’s cause.

 

The Human Brains in Your Fridge Hold Secrets

Jerome Siegel had been searching for the cause of human narcolepsy for years. A PhD and professor at the University of California, Los Angeles, he had managed to acquire four human narcoleptic brains. As laughter is often the trigger for the sudden shift to REM sleep in humans, he focused on the amygdala, an area linked to emotion.

“I looked in the amygdala and didn’t see anything,” he said. “So the brains stayed in my refrigerator for probably 10 years.” 

Then he was invited to review Yanagisawa’s study in Cell. The lightbulb clicked on: Maybe the hypothalamus — not the amygdala — was the area of abnormality. He and his team dug out the decade-old brains.

When they stained the brains, the massive loss of hypocretin-activated neurons was hard to miss: On average, the narcoleptic brains had only about 7000 of the cells versus 70,000 in the average human brain. The scientists also noticed scar tissue in the hypothalamus, indicating that the neurons had at some point died, rather than being absent from birth.

What Siegel didn’t know: Mignot had also acquired a handful of human narcoleptic brains.

Already, he had coauthored a study showing that hypocretin/orexin was undetectable in the cerebrospinal fluid of the majority of the people with narcolepsy his team tested. It seemed clear that the hypocretin/orexin system was flawed — or even broken — in people with the condition.

“It looked like the cause of narcolepsy in humans was indeed this lack of orexin in the brain,” he said. “That was the hypothesis immediately. To me, this is when we established that narcolepsy in humans was due to a lack of orexin. The next thing was to check that the cells were missing.” 

Now he could do exactly that.

As expected, Mignot’s team observed a dramatic loss of hypocretin/orexin cells in the narcoleptic brains. They also noticed that a different cell type in the hypothalamus was unaffected. This implied the damage was specific to the hypocretin-activated cells and supported a hunch they already had: That the deficit was the result not of a genetic defect but of an autoimmune attack. (It’s a hypothesis Mignot has spent the last 15 years proving.)

It wasn’t until a gathering in Hawaii, in late August 2000, that the two realized the overlap of their work.

To celebrate his team’s finding, Mignot had invited a group of researchers to Big Island. With his paper scheduled for publication on September 1, he felt comfortable presenting his findings to his guests, which included Siegel.

Until then, “I didn’t know what he had found, and he didn’t know what I had found, which basically was the same thing,” said Siegel.

In yet another strange twist, the two papers were published just weeks apart, simultaneously revealing that human narcoleptics have a depleted supply of the neurons that bind to hypocretin/orexin. The cause of the disorder was at last a certainty.

“Even if I was first, what does it matter? In the end, you need confirmation,” said Mignot. “You need multiple people to make sure that it’s true. It’s good science when things like this happen.”

 

How All of This Changed Medicine

Since these groundbreaking discoveries, the diagnosis of narcolepsy has become much simpler. Lab tests can now easily measure hypocretin in cerebrospinal fluid, providing a definitive diagnosis.

But the development of narcolepsy treatments has lagged — even though hypocretin/orexin replacement therapy is the obvious answer.

“Almost 25 years have elapsed, and there’s no such therapeutic on the market,” said Kilduff, who now works for SRI International, a non-profit research and development institute.

That’s partly because agonists — drugs that bind to receptors in the brain — are challenging to create, as this requires mimicking the activating molecule’s structure, like copying the grooves of an intricate key.

Antagonists, by comparison, are easier to develop. These act as a gate, blocking access to the receptors. As a result, drugs that promote sleep by thwarting hypocretin/orexin have emerged more quickly, providing a flurry of new options for people with insomnia. The first, suvorexant, was launched in 2014. Two others followed in recent years.

Researchers are hopeful a hypocretin/orexin agonist is on the horizon.

“This is a very hot area of drug development,” said Kilduff. “It’s just a matter of who’s going to get the drug to market first.”

 

One More Hypocretin/Orexin Surprise — and It Could Be The Biggest

Several years ago, Siegel’s lab received what was supposed to be a healthy human brain — one they could use as a comparison for narcoleptic brains. But researcher Thomas Thannickal, PhD, lead author of the UCLA study linking hypocretin loss to human narcolepsy, noticed something strange: This brain had significantly more hypocretin neurons than average.

Was this due to a seizure? A traumatic death? Siegel called the brain bank to request the donor’s records. He was told they were missing.

Years later, Siegel happened to be visiting the brain bank for another project and found himself in a room adjacent to the medical records. “Nobody was there,” he said, “so I just opened a drawer.”

Shuffling through the brain bank’s files, Siegel found the medical records he’d been told were lost. In the file was a note from the donor, explaining that he was a former heroin addict.

“I almost fell out of my chair,” said Siegel. “I realized this guy’s heroin addiction likely had something to do with his very unusual brain.” 

Obviously, opioids affected the orexin system. But how? 

“It’s when people are happy that this peptide is released,” said Siegel. “The hypocretin system is not just related to alertness. It’s related to pleasure.” 

As Yanagisawa observed early on, hypocretin/orexin does indeed play a role in eating — just not the one he initially thought. The peptides prompted pleasure seeking. So the rodents ate. 

In 2018, after acquiring five more brains, Siegel’s group published a study in Translational Medicine showing 54% more detectable hypocretin neurons in the brains of heroin addicts than in those of control individuals.

In 2022, another breakthrough: His team showed that morphine significantly altered the pathways of hypocretin neurons in mice, sending their axons into brain regions associated with addiction. Then, when they removed the mice’s hypocretin neurons and discontinued their daily morphine dose, the rodents showed no symptoms of opioid withdrawal.

This fits the connection with narcolepsy: Among the standard treatments for the condition are amphetamines and other stimulants, which all have addictive potential. Yet, “narcoleptics never abuse these drugs,” Siegel said. “They seem to be uniquely resistant to addiction.”

This could powerfully change the way opioids are administered.

“If you prevent the hypocretin response to opioids, you may be able to prevent opioid addiction,” said Siegel. In other words, blocking the hypocretin system with a drug like those used to treat insomnia may allow patients to experience the pain-relieving benefits of opioids — without the risk for addiction.

His team is currently investigating treatments targeting the hypocretin/orexin system for opioid addiction.

In a study published in July, they found that mice who received suvorexant — the drug for insomnia — didn’t anticipate their daily dose of opioids the way other rodents did. This suggests the medication prevented addiction, without diminishing the pain-relieving effect of opioids.

If it translates to humans, this discovery could potentially save millions of lives.

“I think it’s just us working on this,” said Siegel.

But with hypocretin/orexin, you never know.

A version of this article appeared on Medscape.com.

TOPLINE:

A case series highlights the features of severe, necrotic skin wounds among hospitalized adults associated with xylazine exposure, including 9% that involved exposed deep structures such as bone or tendon.

METHODOLOGY:

• The alpha-2 agonist xylazine, a veterinary sedative, is increasingly detected in fentanyl used illicitly in the United States and may be causing necrotizing wounds in drug users.
• To characterize specific clinical features of xylazine-associated wounds, researchers conducted a case series at three academic medical hospitals in Philadelphia from April 2022 to February 2023.
• They included 29 patients with confirmed xylazine exposure and a chief complaint that was wound-related, seen as inpatients or in the emergency department.

TAKEAWAY:

• The 29 patients (mean age, 39.4 years; 52% men) had a total of 59 wounds, 90% were located on the arms and legs, and 69% were on the posterior upper or anterior lower extremities. Five wounds (9%) involved exposed deep structures such as the bone or tendon.
• Of the 57 wounds with available photographs, 60% had wound beds with predominantly devitalized tissue (eschar or slough), 11% were blisters, 9% had granulation tissue, and 21% had mixed tissue or other types of wound beds. Devitalized tissue was more commonly observed in medium or large wounds (odds ratio [OR], 5.2; P = .02) than in small wounds.
• As reported by patients, 48% were acute wounds, 20% were subacute, and 29% were chronic (present for 3 months or longer). Subacute and chronic wounds were often medium or large compared with acute wounds (OR, 48.5; P < .001) and contained devitalized tissue (OR, 9.5; P < .001).
• Of the 39 wounds with patient-reported etiology, 34 (87%) occurred at drug injection sites.

IN PRACTICE:

To the best of their knowledge, this is “the largest study of wounds among patients with confirmed exposure to xylazine and the first to systematically describe wound characteristics,” the authors wrote. The results, they concluded, “may help identify xylazine exposure and can guide research on the etiology and management of these wounds.”

SOURCE:

This study was conducted by Lydia Lutz, MD, Johns Hopkins University School of Medicine, Baltimore, Maryland, and coinvestigators and was published online in JAMA Dermatology.

LIMITATIONS:

This single-city, retrospective study limited generalizability, and the selection of the largest wounds may bias results. Additionally, chronicity data relied on patient recall, potentially introducing recall bias.

DISCLOSURES:

Two authors received support from the National Institute on Drug Abuse for the study. The authors declared no competing interests.

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

TOPLINE:

A case series highlights the features of severe, necrotic skin wounds among hospitalized adults associated with xylazine exposure, including 9% that involved exposed deep structures such as bone or tendon.

METHODOLOGY:

• The alpha-2 agonist xylazine, a veterinary sedative, is increasingly detected in fentanyl used illicitly in the United States and may be causing necrotizing wounds in drug users.
• To characterize specific clinical features of xylazine-associated wounds, researchers conducted a case series at three academic medical hospitals in Philadelphia from April 2022 to February 2023.
• They included 29 patients with confirmed xylazine exposure and a chief complaint that was wound-related, seen as inpatients or in the emergency department.

TAKEAWAY:

• The 29 patients (mean age, 39.4 years; 52% men) had a total of 59 wounds, 90% were located on the arms and legs, and 69% were on the posterior upper or anterior lower extremities. Five wounds (9%) involved exposed deep structures such as the bone or tendon.
• Of the 57 wounds with available photographs, 60% had wound beds with predominantly devitalized tissue (eschar or slough), 11% were blisters, 9% had granulation tissue, and 21% had mixed tissue or other types of wound beds. Devitalized tissue was more commonly observed in medium or large wounds (odds ratio [OR], 5.2; P = .02) than in small wounds.
• As reported by patients, 48% were acute wounds, 20% were subacute, and 29% were chronic (present for 3 months or longer). Subacute and chronic wounds were often medium or large compared with acute wounds (OR, 48.5; P < .001) and contained devitalized tissue (OR, 9.5; P < .001).
• Of the 39 wounds with patient-reported etiology, 34 (87%) occurred at drug injection sites.

IN PRACTICE:

To the best of their knowledge, this is “the largest study of wounds among patients with confirmed exposure to xylazine and the first to systematically describe wound characteristics,” the authors wrote. The results, they concluded, “may help identify xylazine exposure and can guide research on the etiology and management of these wounds.”

SOURCE:

This study was conducted by Lydia Lutz, MD, Johns Hopkins University School of Medicine, Baltimore, Maryland, and coinvestigators and was published online in JAMA Dermatology.

LIMITATIONS:

This single-city, retrospective study limited generalizability, and the selection of the largest wounds may bias results. Additionally, chronicity data relied on patient recall, potentially introducing recall bias.

DISCLOSURES:

Two authors received support from the National Institute on Drug Abuse for the study. The authors declared no competing interests.

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

TOPLINE:

A case series highlights the features of severe, necrotic skin wounds among hospitalized adults associated with xylazine exposure, including 9% that involved exposed deep structures such as bone or tendon.

METHODOLOGY:

• The alpha-2 agonist xylazine, a veterinary sedative, is increasingly detected in fentanyl used illicitly in the United States and may be causing necrotizing wounds in drug users.
• To characterize specific clinical features of xylazine-associated wounds, researchers conducted a case series at three academic medical hospitals in Philadelphia from April 2022 to February 2023.
• They included 29 patients with confirmed xylazine exposure and a chief complaint that was wound-related, seen as inpatients or in the emergency department.

TAKEAWAY:

• The 29 patients (mean age, 39.4 years; 52% men) had a total of 59 wounds, 90% were located on the arms and legs, and 69% were on the posterior upper or anterior lower extremities. Five wounds (9%) involved exposed deep structures such as the bone or tendon.
• Of the 57 wounds with available photographs, 60% had wound beds with predominantly devitalized tissue (eschar or slough), 11% were blisters, 9% had granulation tissue, and 21% had mixed tissue or other types of wound beds. Devitalized tissue was more commonly observed in medium or large wounds (odds ratio [OR], 5.2; P = .02) than in small wounds.
• As reported by patients, 48% were acute wounds, 20% were subacute, and 29% were chronic (present for 3 months or longer). Subacute and chronic wounds were often medium or large compared with acute wounds (OR, 48.5; P < .001) and contained devitalized tissue (OR, 9.5; P < .001).
• Of the 39 wounds with patient-reported etiology, 34 (87%) occurred at drug injection sites.

IN PRACTICE:

To the best of their knowledge, this is “the largest study of wounds among patients with confirmed exposure to xylazine and the first to systematically describe wound characteristics,” the authors wrote. The results, they concluded, “may help identify xylazine exposure and can guide research on the etiology and management of these wounds.”

SOURCE:

This study was conducted by Lydia Lutz, MD, Johns Hopkins University School of Medicine, Baltimore, Maryland, and coinvestigators and was published online in JAMA Dermatology.

LIMITATIONS:

This single-city, retrospective study limited generalizability, and the selection of the largest wounds may bias results. Additionally, chronicity data relied on patient recall, potentially introducing recall bias.

DISCLOSURES:

Two authors received support from the National Institute on Drug Abuse for the study. The authors declared no competing interests.

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

TOPLINE:

Combining transcranial direct current stimulation (tDCS) and repetitive transcranial magnetic stimulation (rTMS) was associated with a greater reduction in symptoms of major depressive disorder (MDD) than either treatment alone, a new study showed.

 

METHODOLOGY:

• Researchers conducted a double-blind, sham-controlled randomized clinical trial from 2021 to 2023 at three hospitals in China with 240 participants with MDD (mean age, 32.5 years; 58% women).
• Participants received active tDCS + active rTMS, sham tDCS + active rTMS, active tDCS + sham rTMS, or sham tDCS + sham rTMS with treatments administered five times per week for 2 weeks.
• tDCS was administered in 20-minute sessions using a 2-mA direct current stimulator, whereas rTMS involved 1600 pulses of 10-Hz stimulation targeting the left dorsolateral prefrontal cortex. Sham treatments used a pseudostimulation coil and only emitted sound.
• The primary outcome was change in the 24-item Hamilton Depression Rating Scale (HDRS-24) total score from baseline to week 2.
• Secondary outcomes included HDRS-24 total score change at week 4, remission rate (HDRS-24 total score ≤ 9), response rate (≥ 50% reduction in HDRS-24 total score), and adverse events.

TAKEAWAY:

• The active tDCS + active rTMS group demonstrated the greatest reduction in mean HDRS-24 score (18.33 ± 5.39) at week 2 compared with sham tDCS + active rTMS, active tDCS + sham rTMS, and sham tDCS + sham rTMS (P < .001).
• Response rates at week 2 were notably higher in the active tDCS + active rTMS group (85%) than in the active tDCS + sham rTMS (30%) and sham tDCS + sham rTMS groups (32%).
• The remission rate at week 4 reached 83% in the active tDCS + active rTMS group, which was significantly higher than the remission rates with the other interventions (P < .001).
• The treatments were well tolerated, with no serious adverse events, seizures, or manic symptoms reported across all intervention groups.

IN PRACTICE:

This trial “was the first to evaluate the safety, feasibility, and efficacy of combining tDCS and rTMS in treating depression. Future studies should focus on investigating the mechanism of this synergistic effect and improving the stimulation parameters to optimize the therapeutic effect,” the investigators wrote.

 

SOURCE:

This study was led by Dongsheng Zhou, MD, Ningbo Kangning Hospital, Ningbo, China. It was published online in JAMA Network Open.

 

LIMITATIONS:

The brief treatment duration involving 10 sessions may have been insufficient for tDCS and rTMS to demonstrate their full antidepressant potential. The inability to regulate participants’ antidepressant medications throughout the study period presented another limitation. Additionally, the lack of stratified randomization and adjustment for center effects may have introduced variability in the results.

 

DISCLOSURES:

This study received support from multiple grants, including from the Natural Science Foundation of Zhejiang Province, Basic Public Welfare Research Project of Zhejiang Province, Ningbo Medical and Health Brand Discipline, Ningbo Clinical Medical Research Centre for Mental Health, Ningbo Top Medical and Health Research Program, and the Zhejiang Medical and Health Science and Technology Plan Project. The authors reported no conflicts of interest.

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

TOPLINE:

Combining transcranial direct current stimulation (tDCS) and repetitive transcranial magnetic stimulation (rTMS) was associated with a greater reduction in symptoms of major depressive disorder (MDD) than either treatment alone, a new study showed.

 

METHODOLOGY:

• Researchers conducted a double-blind, sham-controlled randomized clinical trial from 2021 to 2023 at three hospitals in China with 240 participants with MDD (mean age, 32.5 years; 58% women).
• Participants received active tDCS + active rTMS, sham tDCS + active rTMS, active tDCS + sham rTMS, or sham tDCS + sham rTMS with treatments administered five times per week for 2 weeks.
• tDCS was administered in 20-minute sessions using a 2-mA direct current stimulator, whereas rTMS involved 1600 pulses of 10-Hz stimulation targeting the left dorsolateral prefrontal cortex. Sham treatments used a pseudostimulation coil and only emitted sound.
• The primary outcome was change in the 24-item Hamilton Depression Rating Scale (HDRS-24) total score from baseline to week 2.
• Secondary outcomes included HDRS-24 total score change at week 4, remission rate (HDRS-24 total score ≤ 9), response rate (≥ 50% reduction in HDRS-24 total score), and adverse events.

TAKEAWAY:

• The active tDCS + active rTMS group demonstrated the greatest reduction in mean HDRS-24 score (18.33 ± 5.39) at week 2 compared with sham tDCS + active rTMS, active tDCS + sham rTMS, and sham tDCS + sham rTMS (P < .001).
• Response rates at week 2 were notably higher in the active tDCS + active rTMS group (85%) than in the active tDCS + sham rTMS (30%) and sham tDCS + sham rTMS groups (32%).
• The remission rate at week 4 reached 83% in the active tDCS + active rTMS group, which was significantly higher than the remission rates with the other interventions (P < .001).
• The treatments were well tolerated, with no serious adverse events, seizures, or manic symptoms reported across all intervention groups.

IN PRACTICE:

This trial “was the first to evaluate the safety, feasibility, and efficacy of combining tDCS and rTMS in treating depression. Future studies should focus on investigating the mechanism of this synergistic effect and improving the stimulation parameters to optimize the therapeutic effect,” the investigators wrote.

 

SOURCE:

This study was led by Dongsheng Zhou, MD, Ningbo Kangning Hospital, Ningbo, China. It was published online in JAMA Network Open.

 

LIMITATIONS:

The brief treatment duration involving 10 sessions may have been insufficient for tDCS and rTMS to demonstrate their full antidepressant potential. The inability to regulate participants’ antidepressant medications throughout the study period presented another limitation. Additionally, the lack of stratified randomization and adjustment for center effects may have introduced variability in the results.

 

DISCLOSURES:

This study received support from multiple grants, including from the Natural Science Foundation of Zhejiang Province, Basic Public Welfare Research Project of Zhejiang Province, Ningbo Medical and Health Brand Discipline, Ningbo Clinical Medical Research Centre for Mental Health, Ningbo Top Medical and Health Research Program, and the Zhejiang Medical and Health Science and Technology Plan Project. The authors reported no conflicts of interest.

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

TOPLINE:

Combining transcranial direct current stimulation (tDCS) and repetitive transcranial magnetic stimulation (rTMS) was associated with a greater reduction in symptoms of major depressive disorder (MDD) than either treatment alone, a new study showed.

 

METHODOLOGY:

• Researchers conducted a double-blind, sham-controlled randomized clinical trial from 2021 to 2023 at three hospitals in China with 240 participants with MDD (mean age, 32.5 years; 58% women).
• Participants received active tDCS + active rTMS, sham tDCS + active rTMS, active tDCS + sham rTMS, or sham tDCS + sham rTMS with treatments administered five times per week for 2 weeks.
• tDCS was administered in 20-minute sessions using a 2-mA direct current stimulator, whereas rTMS involved 1600 pulses of 10-Hz stimulation targeting the left dorsolateral prefrontal cortex. Sham treatments used a pseudostimulation coil and only emitted sound.
• The primary outcome was change in the 24-item Hamilton Depression Rating Scale (HDRS-24) total score from baseline to week 2.
• Secondary outcomes included HDRS-24 total score change at week 4, remission rate (HDRS-24 total score ≤ 9), response rate (≥ 50% reduction in HDRS-24 total score), and adverse events.

TAKEAWAY:

• The active tDCS + active rTMS group demonstrated the greatest reduction in mean HDRS-24 score (18.33 ± 5.39) at week 2 compared with sham tDCS + active rTMS, active tDCS + sham rTMS, and sham tDCS + sham rTMS (P < .001).
• Response rates at week 2 were notably higher in the active tDCS + active rTMS group (85%) than in the active tDCS + sham rTMS (30%) and sham tDCS + sham rTMS groups (32%).
• The remission rate at week 4 reached 83% in the active tDCS + active rTMS group, which was significantly higher than the remission rates with the other interventions (P < .001).
• The treatments were well tolerated, with no serious adverse events, seizures, or manic symptoms reported across all intervention groups.

IN PRACTICE:

This trial “was the first to evaluate the safety, feasibility, and efficacy of combining tDCS and rTMS in treating depression. Future studies should focus on investigating the mechanism of this synergistic effect and improving the stimulation parameters to optimize the therapeutic effect,” the investigators wrote.

 

SOURCE:

This study was led by Dongsheng Zhou, MD, Ningbo Kangning Hospital, Ningbo, China. It was published online in JAMA Network Open.

 

LIMITATIONS:

The brief treatment duration involving 10 sessions may have been insufficient for tDCS and rTMS to demonstrate their full antidepressant potential. The inability to regulate participants’ antidepressant medications throughout the study period presented another limitation. Additionally, the lack of stratified randomization and adjustment for center effects may have introduced variability in the results.

 

DISCLOSURES:

This study received support from multiple grants, including from the Natural Science Foundation of Zhejiang Province, Basic Public Welfare Research Project of Zhejiang Province, Ningbo Medical and Health Brand Discipline, Ningbo Clinical Medical Research Centre for Mental Health, Ningbo Top Medical and Health Research Program, and the Zhejiang Medical and Health Science and Technology Plan Project. The authors reported no conflicts of interest.

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

Nursing is a competitive field. In 2022, nursing schools rejected more than 78,000 qualified applications, and the students whose applications were accepted faced demanding schedules and rigorous academics and clinical rotations. Is this a recipe for depression?

In 2024, 38% of nursing students experienced depression — a 9.3% increase over 2019, according to research from higher education research group Degreechoices. Catherine A. Stubin, PhD, RN, assistant professor of nursing at Rutgers University–Camden in New Jersey, calls it “a mental health crisis in nursing.”

“Nursing is a very rigorous, difficult, psychologically and physically demanding profession,” she said. “If students don’t have the tools and resources to adequately deal with these stressors in nursing school, it’s going to carry over to their professional practice.”

A growing recognition of the toll that nursing programs may have on students’ mental health has led schools to launch initiatives to better support the next generation of nurses.

 

Diagnosing the Problem

Higher than average rates of depression among nursing students are not new. Nursing students often work long shifts with limited breaks. The academic rigors and clinical demands of caring for patients with acute and chronic conditions while instructors evaluate and watch for mistakes can cause high levels of stress, Stubin told this news organization. “Eventually, something has to give, and it’s usually their mental health.”

Clinical practicums often start when nursing students are still freshmen, and asking 18-year-old students to provide patient care in often-chaotic clinical environments is “overwhelming,” according to Stubin. The COVID-19 pandemic further exacerbated the issue.

During lockdown, more than half the nursing students reported moderate to severe symptoms of anxiety and depression, which was attributed to the transition to online learning, fear of infection, burnout, and the psychological distress of lockdown.

“The pandemic exacerbated existing mental health problems in undergraduate nursing students,” said Stubin. “In the wake of it ... a lot of [registered nurses] have mental health issues and are leaving the profession.”

 

Helping Nurses Heal

A significant shift in the willingness to talk about mental health and seek treatment could help. In 2011, just one third of students participated in the treatment for a mental health disorder. The latest data show that 61% of students experiencing symptoms of depression or anxiety take medication or seek therapy or counseling.

Incoming health sciences students at Ohio State University (OSU), Columbus, are screened for depression, anxiety, and suicidal ideation and directed to campus health services as needed. Bernadette Mazurek Melnyk, PhD, APRN-CNP, OSU’s chief wellness officer and former dean in the College of Nursing, believes it’s an essential step in supporting students, adding, “If you don’t screen, you don’t know the students are suffering, and we’re able to get help to the students who need it quickly.”

 

Prioritizing Solutions

Counseling services available through campus health centers are just one part of a multipronged approach that nursing schools have taken to improve the health and well-being of students. Nursing programs have also introduced initiatives to lower stress, prevent burnout, and relieve emotional trauma.

“In nursing education, we have to lay the groundwork for the self-care, wellness, and resilience practices that can, hopefully, be carried over into their professional practices,” Stubin said.

At Rutgers University–Camden, the wellness center provides counseling services, and the Student Nursing Association offers a pet therapy program. Stubin also incorporates self-care, resilience-building strategies, and wellness programming into the curriculum.

During the pandemic, the University of Colorado College of Nursing, Aurora, created a class called Stress Impact and Care for COVID-19 to provide content, exercises, and support groups for nursing students. The class was so popular that it was adapted and integrated into the curriculum.

The University of Vermont, Burlington, introduced the Benson-Henry Institute Stress Management and Resiliency Training program in 2021. The 8-week program was designed to teach nursing students coping strategies to reduce stress.

Offering stress management programs to first-year nursing students has been linked to improved problem-solving skills and fewer emotional and social behavioral symptoms. However, for programs to be effective, Melnyk believes that they need to be integrated into the curriculum, not offered as electives.

“We know mindfulness works, we know cognitive behavior skills-building works, and these types of evidence-based programs with such efficacy behind them should not be optional,” she said. “Students are overwhelmed just with their coursework, so if these programs exist for extra credit, students won’t take them.”

 

Creating a Culture of Wellness

Teaching nursing students how to manage stress and providing the resources to combat depression and anxiety is just the first step in building a healthy, resilient nursing workforce.

Prioritizing wellness in nursing isn’t just essential for addressing the nationwide nursing shortage. Burnout in the medical field costs the United States healthcare system $4.6 billion per year, and preventable medical errors are the third leading cause of death in the United States.

“There is a nice movement across the United States to reduce these mental health issues because they’re so costly,” Melnyk said.

There are also national efforts to address the issue. The National Academy of Medicine introduced the Action Collaborative on Clinician Well-Being and Resilience, which has grown to include more than 200 organizations committed to reversing burnout and improving mental health in the clinical workforce. The American Nurses Foundation created The Nurse Well-Being: Building Peer and Leadership Support Program to provide resources and peer support to help nurses manage stress.

Health systems and hospitals also need to prioritize clinical well-being to reduce stress and burnout — and these efforts must be ongoing.

“These resources have to be extended into the working world ... and not just once a year for Nurses Week in May, but on a regular continued basis,” said Stubin. “Healthcare corporations and hospitals have to continue these resources and this help; it has to be a priority.”

Until the culture changes, Stubin fears that nursing students will continue facing barriers to completing their programs and maintaining nursing careers. Currently, 43% of college students considered leaving their program for mental health reasons, and 21.7% of nurses reported suicidal ideation.

“There’s a nursing shortage, and the acuity of patient care is increasing, so the stressors in the clinical area aren’t going to decrease,” Stubin said. “We as nursing faculty must teach our students how to manage these stressors to build a resilient, mentally and physically healthy workforce.”

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

Nursing is a competitive field. In 2022, nursing schools rejected more than 78,000 qualified applications, and the students whose applications were accepted faced demanding schedules and rigorous academics and clinical rotations. Is this a recipe for depression?

In 2024, 38% of nursing students experienced depression — a 9.3% increase over 2019, according to research from higher education research group Degreechoices. Catherine A. Stubin, PhD, RN, assistant professor of nursing at Rutgers University–Camden in New Jersey, calls it “a mental health crisis in nursing.”

“Nursing is a very rigorous, difficult, psychologically and physically demanding profession,” she said. “If students don’t have the tools and resources to adequately deal with these stressors in nursing school, it’s going to carry over to their professional practice.”

A growing recognition of the toll that nursing programs may have on students’ mental health has led schools to launch initiatives to better support the next generation of nurses.

 

Diagnosing the Problem

Higher than average rates of depression among nursing students are not new. Nursing students often work long shifts with limited breaks. The academic rigors and clinical demands of caring for patients with acute and chronic conditions while instructors evaluate and watch for mistakes can cause high levels of stress, Stubin told this news organization. “Eventually, something has to give, and it’s usually their mental health.”

Clinical practicums often start when nursing students are still freshmen, and asking 18-year-old students to provide patient care in often-chaotic clinical environments is “overwhelming,” according to Stubin. The COVID-19 pandemic further exacerbated the issue.

During lockdown, more than half the nursing students reported moderate to severe symptoms of anxiety and depression, which was attributed to the transition to online learning, fear of infection, burnout, and the psychological distress of lockdown.

“The pandemic exacerbated existing mental health problems in undergraduate nursing students,” said Stubin. “In the wake of it ... a lot of [registered nurses] have mental health issues and are leaving the profession.”

 

Helping Nurses Heal

A significant shift in the willingness to talk about mental health and seek treatment could help. In 2011, just one third of students participated in the treatment for a mental health disorder. The latest data show that 61% of students experiencing symptoms of depression or anxiety take medication or seek therapy or counseling.

Incoming health sciences students at Ohio State University (OSU), Columbus, are screened for depression, anxiety, and suicidal ideation and directed to campus health services as needed. Bernadette Mazurek Melnyk, PhD, APRN-CNP, OSU’s chief wellness officer and former dean in the College of Nursing, believes it’s an essential step in supporting students, adding, “If you don’t screen, you don’t know the students are suffering, and we’re able to get help to the students who need it quickly.”

 

Prioritizing Solutions

Counseling services available through campus health centers are just one part of a multipronged approach that nursing schools have taken to improve the health and well-being of students. Nursing programs have also introduced initiatives to lower stress, prevent burnout, and relieve emotional trauma.

“In nursing education, we have to lay the groundwork for the self-care, wellness, and resilience practices that can, hopefully, be carried over into their professional practices,” Stubin said.

At Rutgers University–Camden, the wellness center provides counseling services, and the Student Nursing Association offers a pet therapy program. Stubin also incorporates self-care, resilience-building strategies, and wellness programming into the curriculum.

During the pandemic, the University of Colorado College of Nursing, Aurora, created a class called Stress Impact and Care for COVID-19 to provide content, exercises, and support groups for nursing students. The class was so popular that it was adapted and integrated into the curriculum.

The University of Vermont, Burlington, introduced the Benson-Henry Institute Stress Management and Resiliency Training program in 2021. The 8-week program was designed to teach nursing students coping strategies to reduce stress.

Offering stress management programs to first-year nursing students has been linked to improved problem-solving skills and fewer emotional and social behavioral symptoms. However, for programs to be effective, Melnyk believes that they need to be integrated into the curriculum, not offered as electives.

“We know mindfulness works, we know cognitive behavior skills-building works, and these types of evidence-based programs with such efficacy behind them should not be optional,” she said. “Students are overwhelmed just with their coursework, so if these programs exist for extra credit, students won’t take them.”

 

Creating a Culture of Wellness

Teaching nursing students how to manage stress and providing the resources to combat depression and anxiety is just the first step in building a healthy, resilient nursing workforce.

Prioritizing wellness in nursing isn’t just essential for addressing the nationwide nursing shortage. Burnout in the medical field costs the United States healthcare system $4.6 billion per year, and preventable medical errors are the third leading cause of death in the United States.

“There is a nice movement across the United States to reduce these mental health issues because they’re so costly,” Melnyk said.

There are also national efforts to address the issue. The National Academy of Medicine introduced the Action Collaborative on Clinician Well-Being and Resilience, which has grown to include more than 200 organizations committed to reversing burnout and improving mental health in the clinical workforce. The American Nurses Foundation created The Nurse Well-Being: Building Peer and Leadership Support Program to provide resources and peer support to help nurses manage stress.

Health systems and hospitals also need to prioritize clinical well-being to reduce stress and burnout — and these efforts must be ongoing.

“These resources have to be extended into the working world ... and not just once a year for Nurses Week in May, but on a regular continued basis,” said Stubin. “Healthcare corporations and hospitals have to continue these resources and this help; it has to be a priority.”

Until the culture changes, Stubin fears that nursing students will continue facing barriers to completing their programs and maintaining nursing careers. Currently, 43% of college students considered leaving their program for mental health reasons, and 21.7% of nurses reported suicidal ideation.

“There’s a nursing shortage, and the acuity of patient care is increasing, so the stressors in the clinical area aren’t going to decrease,” Stubin said. “We as nursing faculty must teach our students how to manage these stressors to build a resilient, mentally and physically healthy workforce.”

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

Nursing is a competitive field. In 2022, nursing schools rejected more than 78,000 qualified applications, and the students whose applications were accepted faced demanding schedules and rigorous academics and clinical rotations. Is this a recipe for depression?

In 2024, 38% of nursing students experienced depression — a 9.3% increase over 2019, according to research from higher education research group Degreechoices. Catherine A. Stubin, PhD, RN, assistant professor of nursing at Rutgers University–Camden in New Jersey, calls it “a mental health crisis in nursing.”

“Nursing is a very rigorous, difficult, psychologically and physically demanding profession,” she said. “If students don’t have the tools and resources to adequately deal with these stressors in nursing school, it’s going to carry over to their professional practice.”

A growing recognition of the toll that nursing programs may have on students’ mental health has led schools to launch initiatives to better support the next generation of nurses.

 

Diagnosing the Problem

Higher than average rates of depression among nursing students are not new. Nursing students often work long shifts with limited breaks. The academic rigors and clinical demands of caring for patients with acute and chronic conditions while instructors evaluate and watch for mistakes can cause high levels of stress, Stubin told this news organization. “Eventually, something has to give, and it’s usually their mental health.”

Clinical practicums often start when nursing students are still freshmen, and asking 18-year-old students to provide patient care in often-chaotic clinical environments is “overwhelming,” according to Stubin. The COVID-19 pandemic further exacerbated the issue.

During lockdown, more than half the nursing students reported moderate to severe symptoms of anxiety and depression, which was attributed to the transition to online learning, fear of infection, burnout, and the psychological distress of lockdown.

“The pandemic exacerbated existing mental health problems in undergraduate nursing students,” said Stubin. “In the wake of it ... a lot of [registered nurses] have mental health issues and are leaving the profession.”

 

Helping Nurses Heal

A significant shift in the willingness to talk about mental health and seek treatment could help. In 2011, just one third of students participated in the treatment for a mental health disorder. The latest data show that 61% of students experiencing symptoms of depression or anxiety take medication or seek therapy or counseling.

Incoming health sciences students at Ohio State University (OSU), Columbus, are screened for depression, anxiety, and suicidal ideation and directed to campus health services as needed. Bernadette Mazurek Melnyk, PhD, APRN-CNP, OSU’s chief wellness officer and former dean in the College of Nursing, believes it’s an essential step in supporting students, adding, “If you don’t screen, you don’t know the students are suffering, and we’re able to get help to the students who need it quickly.”

 

Prioritizing Solutions

Counseling services available through campus health centers are just one part of a multipronged approach that nursing schools have taken to improve the health and well-being of students. Nursing programs have also introduced initiatives to lower stress, prevent burnout, and relieve emotional trauma.

“In nursing education, we have to lay the groundwork for the self-care, wellness, and resilience practices that can, hopefully, be carried over into their professional practices,” Stubin said.

At Rutgers University–Camden, the wellness center provides counseling services, and the Student Nursing Association offers a pet therapy program. Stubin also incorporates self-care, resilience-building strategies, and wellness programming into the curriculum.

During the pandemic, the University of Colorado College of Nursing, Aurora, created a class called Stress Impact and Care for COVID-19 to provide content, exercises, and support groups for nursing students. The class was so popular that it was adapted and integrated into the curriculum.

The University of Vermont, Burlington, introduced the Benson-Henry Institute Stress Management and Resiliency Training program in 2021. The 8-week program was designed to teach nursing students coping strategies to reduce stress.

Offering stress management programs to first-year nursing students has been linked to improved problem-solving skills and fewer emotional and social behavioral symptoms. However, for programs to be effective, Melnyk believes that they need to be integrated into the curriculum, not offered as electives.

“We know mindfulness works, we know cognitive behavior skills-building works, and these types of evidence-based programs with such efficacy behind them should not be optional,” she said. “Students are overwhelmed just with their coursework, so if these programs exist for extra credit, students won’t take them.”

 

Creating a Culture of Wellness

Teaching nursing students how to manage stress and providing the resources to combat depression and anxiety is just the first step in building a healthy, resilient nursing workforce.

Prioritizing wellness in nursing isn’t just essential for addressing the nationwide nursing shortage. Burnout in the medical field costs the United States healthcare system $4.6 billion per year, and preventable medical errors are the third leading cause of death in the United States.

“There is a nice movement across the United States to reduce these mental health issues because they’re so costly,” Melnyk said.

There are also national efforts to address the issue. The National Academy of Medicine introduced the Action Collaborative on Clinician Well-Being and Resilience, which has grown to include more than 200 organizations committed to reversing burnout and improving mental health in the clinical workforce. The American Nurses Foundation created The Nurse Well-Being: Building Peer and Leadership Support Program to provide resources and peer support to help nurses manage stress.

Health systems and hospitals also need to prioritize clinical well-being to reduce stress and burnout — and these efforts must be ongoing.

“These resources have to be extended into the working world ... and not just once a year for Nurses Week in May, but on a regular continued basis,” said Stubin. “Healthcare corporations and hospitals have to continue these resources and this help; it has to be a priority.”

Until the culture changes, Stubin fears that nursing students will continue facing barriers to completing their programs and maintaining nursing careers. Currently, 43% of college students considered leaving their program for mental health reasons, and 21.7% of nurses reported suicidal ideation.

“There’s a nursing shortage, and the acuity of patient care is increasing, so the stressors in the clinical area aren’t going to decrease,” Stubin said. “We as nursing faculty must teach our students how to manage these stressors to build a resilient, mentally and physically healthy workforce.”

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

TOPLINE:

Sleep-related daytime dysfunction is associated with an almost threefold higher risk for motoric cognitive risk (MCR) syndrome, a predementia condition characterized by slow gait and cognitive issues, a new study shows.

METHODOLOGY:

• Researchers included 445 older adults without dementia (mean age, 76 years; 57% women).
• Sleep components were assessed, and participants were classified as poor or good sleepers using the Pittsburgh Sleep Quality Index questionnaire.
• The primary outcome was incidence of MCR syndrome.
• The mean follow-up duration was 2.9 years.

TAKEAWAY:

• During the study period, 36 participants developed MCR syndrome.
• Poor sleepers had a higher risk for incident MCR syndrome, compared with good sleepers, after adjustment for age, sex, and educational level (adjusted hazard ratio [aHR], 2.6; 95% CI, 1.3-5.0; P < .05). However, this association was no longer significant after further adjustment for depressive symptoms.
• Sleep-related daytime dysfunction, defined as excessive sleepiness and lower enthusiasm for activities, was the only sleep component linked to a significant risk for MCR syndrome in fully adjusted models (aHR, 3.3; 95% CI, 1.5-7.4; P < .05).
• Prevalent MCR syndrome was not significantly associated with poor sleep quality (odds ratio, 1.1), suggesting that the relationship is unidirectional.

IN PRACTICE:

“Establishing the relationship between sleep dysfunction and MCR [syndrome] risk is important because early intervention may offer the best hope for preventing dementia,” the investigators wrote.

“Our findings emphasize the need for screening for sleep issues. There’s potential that people could get help with their sleep issues and prevent cognitive decline later in life,” lead author Victoire Leroy, MD, PhD, Albert Einstein College of Medicine, New York City, added in a press release. 

 

SOURCE:

The study was published online in Neurology.

LIMITATIONS: 

Study limitations included the lack of objective sleep measurements and potential recall bias in self-reported sleep complaints, particularly among participants with cognitive issues. In addition, the relatively short follow-up period may have resulted in a lower number of incident MCR syndrome cases. The sample population was also predominantly White (80%), which may have limited the generalizability of the findings to other populations.

DISCLOSURES:

The study was funded by the National Institute on Aging. No conflicts of interest were reported.

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

TOPLINE:

Sleep-related daytime dysfunction is associated with an almost threefold higher risk for motoric cognitive risk (MCR) syndrome, a predementia condition characterized by slow gait and cognitive issues, a new study shows.

METHODOLOGY:

• Researchers included 445 older adults without dementia (mean age, 76 years; 57% women).
• Sleep components were assessed, and participants were classified as poor or good sleepers using the Pittsburgh Sleep Quality Index questionnaire.
• The primary outcome was incidence of MCR syndrome.
• The mean follow-up duration was 2.9 years.

TAKEAWAY:

• During the study period, 36 participants developed MCR syndrome.
• Poor sleepers had a higher risk for incident MCR syndrome, compared with good sleepers, after adjustment for age, sex, and educational level (adjusted hazard ratio [aHR], 2.6; 95% CI, 1.3-5.0; P < .05). However, this association was no longer significant after further adjustment for depressive symptoms.
• Sleep-related daytime dysfunction, defined as excessive sleepiness and lower enthusiasm for activities, was the only sleep component linked to a significant risk for MCR syndrome in fully adjusted models (aHR, 3.3; 95% CI, 1.5-7.4; P < .05).
• Prevalent MCR syndrome was not significantly associated with poor sleep quality (odds ratio, 1.1), suggesting that the relationship is unidirectional.

IN PRACTICE:

“Establishing the relationship between sleep dysfunction and MCR [syndrome] risk is important because early intervention may offer the best hope for preventing dementia,” the investigators wrote.

“Our findings emphasize the need for screening for sleep issues. There’s potential that people could get help with their sleep issues and prevent cognitive decline later in life,” lead author Victoire Leroy, MD, PhD, Albert Einstein College of Medicine, New York City, added in a press release. 

 

SOURCE:

The study was published online in Neurology.

LIMITATIONS: 

Study limitations included the lack of objective sleep measurements and potential recall bias in self-reported sleep complaints, particularly among participants with cognitive issues. In addition, the relatively short follow-up period may have resulted in a lower number of incident MCR syndrome cases. The sample population was also predominantly White (80%), which may have limited the generalizability of the findings to other populations.

DISCLOSURES:

The study was funded by the National Institute on Aging. No conflicts of interest were reported.

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

TOPLINE:

Sleep-related daytime dysfunction is associated with an almost threefold higher risk for motoric cognitive risk (MCR) syndrome, a predementia condition characterized by slow gait and cognitive issues, a new study shows.

METHODOLOGY:

• Researchers included 445 older adults without dementia (mean age, 76 years; 57% women).
• Sleep components were assessed, and participants were classified as poor or good sleepers using the Pittsburgh Sleep Quality Index questionnaire.
• The primary outcome was incidence of MCR syndrome.
• The mean follow-up duration was 2.9 years.

TAKEAWAY:

• During the study period, 36 participants developed MCR syndrome.
• Poor sleepers had a higher risk for incident MCR syndrome, compared with good sleepers, after adjustment for age, sex, and educational level (adjusted hazard ratio [aHR], 2.6; 95% CI, 1.3-5.0; P < .05). However, this association was no longer significant after further adjustment for depressive symptoms.
• Sleep-related daytime dysfunction, defined as excessive sleepiness and lower enthusiasm for activities, was the only sleep component linked to a significant risk for MCR syndrome in fully adjusted models (aHR, 3.3; 95% CI, 1.5-7.4; P < .05).
• Prevalent MCR syndrome was not significantly associated with poor sleep quality (odds ratio, 1.1), suggesting that the relationship is unidirectional.

IN PRACTICE:

“Establishing the relationship between sleep dysfunction and MCR [syndrome] risk is important because early intervention may offer the best hope for preventing dementia,” the investigators wrote.

“Our findings emphasize the need for screening for sleep issues. There’s potential that people could get help with their sleep issues and prevent cognitive decline later in life,” lead author Victoire Leroy, MD, PhD, Albert Einstein College of Medicine, New York City, added in a press release. 

 

SOURCE:

The study was published online in Neurology.

LIMITATIONS: 

Study limitations included the lack of objective sleep measurements and potential recall bias in self-reported sleep complaints, particularly among participants with cognitive issues. In addition, the relatively short follow-up period may have resulted in a lower number of incident MCR syndrome cases. The sample population was also predominantly White (80%), which may have limited the generalizability of the findings to other populations.

DISCLOSURES:

The study was funded by the National Institute on Aging. No conflicts of interest were reported.

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

SAN DIEGO — The prevalence of and number of deaths from alcohol-associated liver disease (ALD) and alcohol use disorder (AUD) are growing among people age 70 and older in the United States, according to the results of a new study.

Even as mortality rates decline globally, AUD deaths rose in the United States, increasing 1.63% per year between 2010 and 2019. Deaths from cirrhosis increased by 0.56% each year, and deaths from primary liver cancer associated with alcohol increased by 3.09% per year.

Several factors, such as an aging US population and increasing alcohol consumption, play a major role in the uptick in mortality, said lead author Pojsakorn Danpanichkul, MD, an internal medicine resident at Texas Tech University Health Sciences Center, Lubbock, who presented the findings at The Liver Meeting 2024: American Association for the Study of Liver Diseases (AASLD).

“Healthcare providers should increase screening for alcohol use among older adults and consider the added risks of alcohol consumption. Public health strategies should target alcohol prevention and treatment programs tailored to older adults,” he said.

“Older adults are more vulnerable to the harmful effects of alcohol due to natural declines in liver function and metabolism, leading to a higher risk of liver disease and complications,” he explained. However, “little research has focused on this issue.”

 

Trends in US Not Seen Globally

Danpanichkul and colleagues analyzed data from the Global Burden of Disease Study for 2010-2019, calculating the annual percent change for the burden of AUD, ALD, and liver cancer from alcohol in patients age 70 and older. The research team then compared data in the United States to global estimates for these same diseases.

In 2019, there were 556,340 cases of AUD, 112,560 cases of ALD, and 3720 cases of liver cancer from alcohol in older adults in the United States. In addition, there were 1750 deaths attributed to AUD, 4860 deaths from ALD, and 3010 deaths caused by primary liver cancer from alcohol.

The age-standardized prevalence rates (ASPRs) per 100,000 people were 1547 cases of AUD, 313 cases of ALD, and 10 cases of primary liver cancer caused by alcohol.

The age-standardized death rates (ASDRs) per 100,000 people were 4.88 for AUD, 13.52 for ALD, and 8.38 for primary liver cancer.

During the time period studied, upward trends occurred in the United States, with annual ASPRs increasing by 2.52% for AUD, 1.78% for ALD, and 3.31% for primary liver cancer due to alcohol. Globally, the trends were lower, with annual increases of 0.2% for AUD, 0.38% for ALD, and 0.67% for primary liver cancer from alcohol.

During the same time, ASDRs also increased in all three categories in the United States, while global trends showed a 0.91% decline in AUD deaths and 0.6% decline in ALD deaths. Liver cancer deaths, however, increased by 0.3% worldwide.

Targeted strategies are essential to reduce this growing health burden, especially in an aging population, Danpanichkul said. “These interventions should focus on early detection, intervention, and management for individuals at risk or already affected by ALD and AUD.”

Future studies should investigate alcohol consumption and mortality trends in other age groups, including by sex, location (such as state or territory), and race and ethnicity, he said. Data for more recent years would be compelling as well.

 

Increased Alcohol Use During and After Pandemic

Numerous studies have indicated that alcohol use increased in 2020 during the COVID-19 pandemic and has remained elevated since then. 

In a study published in the Annals of Internal Medicine, for instance, alcohol use per 100 people increased 2.69% in 2020 and 2.96% in 2022, as compared with 2018. Increases occurred across all subgroups, including age, sex, race, ethnicity, and US region.

“During the COVID-19 pandemic, many people stayed at home, watched the television, and increased their alcohol intake” — in the United States and also in Japan — said Hisanori Muto, MD, senior assistant professor of gastroenterology at Fujita Health University in Nagoya, Japan, who wasn’t involved with this study.

“Although the global numbers may appear lower, we’re also seeing an increase in AUD and ALD in Japan, similar to the United States,” he said. “It’s very important to watch these trends and address these diseases.”

Danpanichkul and Muto reported no relevant disclosures.

A version of this article appeared on Medscape.com.

SAN DIEGO — The prevalence of and number of deaths from alcohol-associated liver disease (ALD) and alcohol use disorder (AUD) are growing among people age 70 and older in the United States, according to the results of a new study.

Even as mortality rates decline globally, AUD deaths rose in the United States, increasing 1.63% per year between 2010 and 2019. Deaths from cirrhosis increased by 0.56% each year, and deaths from primary liver cancer associated with alcohol increased by 3.09% per year.

Several factors, such as an aging US population and increasing alcohol consumption, play a major role in the uptick in mortality, said lead author Pojsakorn Danpanichkul, MD, an internal medicine resident at Texas Tech University Health Sciences Center, Lubbock, who presented the findings at The Liver Meeting 2024: American Association for the Study of Liver Diseases (AASLD).

“Healthcare providers should increase screening for alcohol use among older adults and consider the added risks of alcohol consumption. Public health strategies should target alcohol prevention and treatment programs tailored to older adults,” he said.

“Older adults are more vulnerable to the harmful effects of alcohol due to natural declines in liver function and metabolism, leading to a higher risk of liver disease and complications,” he explained. However, “little research has focused on this issue.”

 

Trends in US Not Seen Globally

Danpanichkul and colleagues analyzed data from the Global Burden of Disease Study for 2010-2019, calculating the annual percent change for the burden of AUD, ALD, and liver cancer from alcohol in patients age 70 and older. The research team then compared data in the United States to global estimates for these same diseases.

In 2019, there were 556,340 cases of AUD, 112,560 cases of ALD, and 3720 cases of liver cancer from alcohol in older adults in the United States. In addition, there were 1750 deaths attributed to AUD, 4860 deaths from ALD, and 3010 deaths caused by primary liver cancer from alcohol.

The age-standardized prevalence rates (ASPRs) per 100,000 people were 1547 cases of AUD, 313 cases of ALD, and 10 cases of primary liver cancer caused by alcohol.

The age-standardized death rates (ASDRs) per 100,000 people were 4.88 for AUD, 13.52 for ALD, and 8.38 for primary liver cancer.

During the time period studied, upward trends occurred in the United States, with annual ASPRs increasing by 2.52% for AUD, 1.78% for ALD, and 3.31% for primary liver cancer due to alcohol. Globally, the trends were lower, with annual increases of 0.2% for AUD, 0.38% for ALD, and 0.67% for primary liver cancer from alcohol.

During the same time, ASDRs also increased in all three categories in the United States, while global trends showed a 0.91% decline in AUD deaths and 0.6% decline in ALD deaths. Liver cancer deaths, however, increased by 0.3% worldwide.

Targeted strategies are essential to reduce this growing health burden, especially in an aging population, Danpanichkul said. “These interventions should focus on early detection, intervention, and management for individuals at risk or already affected by ALD and AUD.”

Future studies should investigate alcohol consumption and mortality trends in other age groups, including by sex, location (such as state or territory), and race and ethnicity, he said. Data for more recent years would be compelling as well.

 

Increased Alcohol Use During and After Pandemic

Numerous studies have indicated that alcohol use increased in 2020 during the COVID-19 pandemic and has remained elevated since then. 

In a study published in the Annals of Internal Medicine, for instance, alcohol use per 100 people increased 2.69% in 2020 and 2.96% in 2022, as compared with 2018. Increases occurred across all subgroups, including age, sex, race, ethnicity, and US region.

“During the COVID-19 pandemic, many people stayed at home, watched the television, and increased their alcohol intake” — in the United States and also in Japan — said Hisanori Muto, MD, senior assistant professor of gastroenterology at Fujita Health University in Nagoya, Japan, who wasn’t involved with this study.

“Although the global numbers may appear lower, we’re also seeing an increase in AUD and ALD in Japan, similar to the United States,” he said. “It’s very important to watch these trends and address these diseases.”

Danpanichkul and Muto reported no relevant disclosures.

A version of this article appeared on Medscape.com.

SAN DIEGO — The prevalence of and number of deaths from alcohol-associated liver disease (ALD) and alcohol use disorder (AUD) are growing among people age 70 and older in the United States, according to the results of a new study.

Even as mortality rates decline globally, AUD deaths rose in the United States, increasing 1.63% per year between 2010 and 2019. Deaths from cirrhosis increased by 0.56% each year, and deaths from primary liver cancer associated with alcohol increased by 3.09% per year.

Several factors, such as an aging US population and increasing alcohol consumption, play a major role in the uptick in mortality, said lead author Pojsakorn Danpanichkul, MD, an internal medicine resident at Texas Tech University Health Sciences Center, Lubbock, who presented the findings at The Liver Meeting 2024: American Association for the Study of Liver Diseases (AASLD).

“Healthcare providers should increase screening for alcohol use among older adults and consider the added risks of alcohol consumption. Public health strategies should target alcohol prevention and treatment programs tailored to older adults,” he said.

“Older adults are more vulnerable to the harmful effects of alcohol due to natural declines in liver function and metabolism, leading to a higher risk of liver disease and complications,” he explained. However, “little research has focused on this issue.”

 

Trends in US Not Seen Globally

Danpanichkul and colleagues analyzed data from the Global Burden of Disease Study for 2010-2019, calculating the annual percent change for the burden of AUD, ALD, and liver cancer from alcohol in patients age 70 and older. The research team then compared data in the United States to global estimates for these same diseases.

In 2019, there were 556,340 cases of AUD, 112,560 cases of ALD, and 3720 cases of liver cancer from alcohol in older adults in the United States. In addition, there were 1750 deaths attributed to AUD, 4860 deaths from ALD, and 3010 deaths caused by primary liver cancer from alcohol.

The age-standardized prevalence rates (ASPRs) per 100,000 people were 1547 cases of AUD, 313 cases of ALD, and 10 cases of primary liver cancer caused by alcohol.

The age-standardized death rates (ASDRs) per 100,000 people were 4.88 for AUD, 13.52 for ALD, and 8.38 for primary liver cancer.

During the time period studied, upward trends occurred in the United States, with annual ASPRs increasing by 2.52% for AUD, 1.78% for ALD, and 3.31% for primary liver cancer due to alcohol. Globally, the trends were lower, with annual increases of 0.2% for AUD, 0.38% for ALD, and 0.67% for primary liver cancer from alcohol.

During the same time, ASDRs also increased in all three categories in the United States, while global trends showed a 0.91% decline in AUD deaths and 0.6% decline in ALD deaths. Liver cancer deaths, however, increased by 0.3% worldwide.

Targeted strategies are essential to reduce this growing health burden, especially in an aging population, Danpanichkul said. “These interventions should focus on early detection, intervention, and management for individuals at risk or already affected by ALD and AUD.”

Future studies should investigate alcohol consumption and mortality trends in other age groups, including by sex, location (such as state or territory), and race and ethnicity, he said. Data for more recent years would be compelling as well.

 

Increased Alcohol Use During and After Pandemic

Numerous studies have indicated that alcohol use increased in 2020 during the COVID-19 pandemic and has remained elevated since then. 

In a study published in the Annals of Internal Medicine, for instance, alcohol use per 100 people increased 2.69% in 2020 and 2.96% in 2022, as compared with 2018. Increases occurred across all subgroups, including age, sex, race, ethnicity, and US region.

“During the COVID-19 pandemic, many people stayed at home, watched the television, and increased their alcohol intake” — in the United States and also in Japan — said Hisanori Muto, MD, senior assistant professor of gastroenterology at Fujita Health University in Nagoya, Japan, who wasn’t involved with this study.

“Although the global numbers may appear lower, we’re also seeing an increase in AUD and ALD in Japan, similar to the United States,” he said. “It’s very important to watch these trends and address these diseases.”

Danpanichkul and Muto reported no relevant disclosures.

A version of this article appeared on Medscape.com.

SEATTLE — A novel, quick, and low-cost dementia screening test could significantly improve early detection of Alzheimer’s disease in primary care settings, according to research presented at the Gerontological Society of America (GSA) 2024 Annual Scientific Meeting.

The test, called qBEANS — short for Quick Behavioral Exam to Advance Neuropsychological Screening — involves patients spooning raw kidney beans into small plastic cups in a specific sequence to assess motor learning, visuospatial memory, and executive function. It requires no technology or wearable sensors, making it accessible and easy to implement.

Previous research has shown qBEANS to be sensitive and specific to Alzheimer’s disease pathology, as well as predictive of cognitive and functional decline, the researchers said.

However, the current version of the test takes around 7 minutes to administer, which is too long for use in primary care, according to study author Sydney Schaefer, PhD, associate professor in the School of Biological and Health Systems Engineering at Arizona State University, Tempe, Arizona.

“The purpose of this study was to identify the minimum number of trials needed for reliability relative to the original longer version,” said Schaefer.

The study involved 48 participants without dementia, 77% of whom were women, and an average age of 75.4 years.

The researchers found that the shortened version of the qBEANS test takes only about 3.85 minutes on average — nearly 48% faster than the original version — while still maintaining high reliability (intraclass correlation of 0.85).

With its brevity and simplicity, the test could be easily administered by medical assistants during patient check-in, potentially increasing early dementia detection rates in primary care, said Schaefer.

While the shortened qBEANS test shows promise, further research is needed to assess its acceptability in primary care settings.

“The findings also warrant further development of the BEAN as a direct-to-consumer product, given its low cost and ease of administration,” said Schaefer.

However, Carla Perissinotto, MD, MHS, professor in the Division of Geriatrics at the University of California, San Francisco, cautioned that direct-to-consumer plans “could lead to participants not knowing what to do with the results out of context and without clinical input.”

“I’m not sure that we need to have a new evaluation tool, but instead, greater adoption of known and existing tools,” said Perissinotto, who was not involved in the study.

According to Perissinotto, existing cognitive screening tools Mini-Mental State Examination (MMSE) and Montreal Cognitive Assessment (MoCA) are more commonly used to evaluate cognition and are also relatively quick to administer.

“If [qBEANS] is not benchmarked to other standard tools like the MMSE or MoCA, clinicians may have trouble interpreting results,” said Perissinotto.

Study co-authors Schaefer and Jill Love are co-founders and managing members of Neurosessments LLC, which developed the qBEANS test.

 

A version of this article appeared on Medscape.com.

SEATTLE — A novel, quick, and low-cost dementia screening test could significantly improve early detection of Alzheimer’s disease in primary care settings, according to research presented at the Gerontological Society of America (GSA) 2024 Annual Scientific Meeting.

The test, called qBEANS — short for Quick Behavioral Exam to Advance Neuropsychological Screening — involves patients spooning raw kidney beans into small plastic cups in a specific sequence to assess motor learning, visuospatial memory, and executive function. It requires no technology or wearable sensors, making it accessible and easy to implement.

Previous research has shown qBEANS to be sensitive and specific to Alzheimer’s disease pathology, as well as predictive of cognitive and functional decline, the researchers said.

However, the current version of the test takes around 7 minutes to administer, which is too long for use in primary care, according to study author Sydney Schaefer, PhD, associate professor in the School of Biological and Health Systems Engineering at Arizona State University, Tempe, Arizona.

“The purpose of this study was to identify the minimum number of trials needed for reliability relative to the original longer version,” said Schaefer.

The study involved 48 participants without dementia, 77% of whom were women, and an average age of 75.4 years.

The researchers found that the shortened version of the qBEANS test takes only about 3.85 minutes on average — nearly 48% faster than the original version — while still maintaining high reliability (intraclass correlation of 0.85).

With its brevity and simplicity, the test could be easily administered by medical assistants during patient check-in, potentially increasing early dementia detection rates in primary care, said Schaefer.

While the shortened qBEANS test shows promise, further research is needed to assess its acceptability in primary care settings.

“The findings also warrant further development of the BEAN as a direct-to-consumer product, given its low cost and ease of administration,” said Schaefer.

However, Carla Perissinotto, MD, MHS, professor in the Division of Geriatrics at the University of California, San Francisco, cautioned that direct-to-consumer plans “could lead to participants not knowing what to do with the results out of context and without clinical input.”

“I’m not sure that we need to have a new evaluation tool, but instead, greater adoption of known and existing tools,” said Perissinotto, who was not involved in the study.

According to Perissinotto, existing cognitive screening tools Mini-Mental State Examination (MMSE) and Montreal Cognitive Assessment (MoCA) are more commonly used to evaluate cognition and are also relatively quick to administer.

“If [qBEANS] is not benchmarked to other standard tools like the MMSE or MoCA, clinicians may have trouble interpreting results,” said Perissinotto.

Study co-authors Schaefer and Jill Love are co-founders and managing members of Neurosessments LLC, which developed the qBEANS test.

 

A version of this article appeared on Medscape.com.

SEATTLE — A novel, quick, and low-cost dementia screening test could significantly improve early detection of Alzheimer’s disease in primary care settings, according to research presented at the Gerontological Society of America (GSA) 2024 Annual Scientific Meeting.

The test, called qBEANS — short for Quick Behavioral Exam to Advance Neuropsychological Screening — involves patients spooning raw kidney beans into small plastic cups in a specific sequence to assess motor learning, visuospatial memory, and executive function. It requires no technology or wearable sensors, making it accessible and easy to implement.

Previous research has shown qBEANS to be sensitive and specific to Alzheimer’s disease pathology, as well as predictive of cognitive and functional decline, the researchers said.

However, the current version of the test takes around 7 minutes to administer, which is too long for use in primary care, according to study author Sydney Schaefer, PhD, associate professor in the School of Biological and Health Systems Engineering at Arizona State University, Tempe, Arizona.

“The purpose of this study was to identify the minimum number of trials needed for reliability relative to the original longer version,” said Schaefer.

The study involved 48 participants without dementia, 77% of whom were women, and an average age of 75.4 years.

The researchers found that the shortened version of the qBEANS test takes only about 3.85 minutes on average — nearly 48% faster than the original version — while still maintaining high reliability (intraclass correlation of 0.85).

With its brevity and simplicity, the test could be easily administered by medical assistants during patient check-in, potentially increasing early dementia detection rates in primary care, said Schaefer.

While the shortened qBEANS test shows promise, further research is needed to assess its acceptability in primary care settings.

“The findings also warrant further development of the BEAN as a direct-to-consumer product, given its low cost and ease of administration,” said Schaefer.

However, Carla Perissinotto, MD, MHS, professor in the Division of Geriatrics at the University of California, San Francisco, cautioned that direct-to-consumer plans “could lead to participants not knowing what to do with the results out of context and without clinical input.”

“I’m not sure that we need to have a new evaluation tool, but instead, greater adoption of known and existing tools,” said Perissinotto, who was not involved in the study.

According to Perissinotto, existing cognitive screening tools Mini-Mental State Examination (MMSE) and Montreal Cognitive Assessment (MoCA) are more commonly used to evaluate cognition and are also relatively quick to administer.

“If [qBEANS] is not benchmarked to other standard tools like the MMSE or MoCA, clinicians may have trouble interpreting results,” said Perissinotto.

Study co-authors Schaefer and Jill Love are co-founders and managing members of Neurosessments LLC, which developed the qBEANS test.

 

A version of this article appeared on Medscape.com.

VANCOUVER, BRITISH COLUMBIA — Conditions like diabetes and dementia are common in patients who are admitted to long-term care facilities, but aggressive management of these conditions in long-term care residents is not recommended, according to a presentation given at the Family Medicine Forum (FMF) 2024.

Hospitalizations for hypoglycemia are risky for patients with diabetes who are residents of long-term care facilities, particularly those aged 75 years or older, said Adam Gurau, MD, a family physician in Toronto. Gurau completed a fellowship in care of the elderly at the University of Toronto, in Ontario, Canada.

“A lot of studies have shown diabetes-related hospitalizations,” said Gurau. He cited a 2014 study that found that hypoglycemia hospitalization rates were twice as high in older patients (age, 75 years or older) as in younger patients (age, 65-74 years).

“It is important to keep in mind that our residents in long-term care are at increasing risk for hypoglycemia, and we really should try to reduce [this risk] and not use dangerous medications or potentially dangerous [means of] diabetes management,” said Gurau.

A Canadian study that examined the composite risk for emergency department visits, hospitalizations, or death within 30 days of reaching intensive glycemic control with high-risk agents (such as insulin or sulfonylureas) suggested little benefit and possible harm in using these agents in adults aged 75 years or older.

In addition, current guidelines on diabetes management encourage a different approach. “Looking at some of the more recent North American guidelines, many of them actually now recommend relaxing glycemic targets to reduce overtreatment and prevent hypoglycemia,” said Gurau.

 

Deprescribing Medications

Medication reviews present opportunities for taking a global view of a patient’s treatments and determining whether any drug can be removed from the list. “What we want to do is optimize medications,” said Gurau. “We’re not talking about adding medications. We’re talking about removing medications, which is, I think, what we should be doing.”

Some research suggests that patients are open to deprescribing. One survey examined older adults (mean age, 79.1 years) with three or more chronic conditions who had been prescribed at least five medications. The researchers found that most participants (77%) were willing to deprescribe one or more medicines if a doctor advised that it was possible. “General practitioners may be able to increase deprescribing by building trust with their patients and communicating evidence about the risks of medication use,” the researchers wrote.

About 62% of seniors living in a residential care home have a diagnosis of Alzheimer’s disease or another dementia, according to the Alzheimer Society of Canada. Evidence suggests that nonpharmacologic approaches, such as massage and touch therapy and music, can manage neuropsychiatric symptoms, such as aggression and agitation, that are associated with dementia in older adults, noted Gurau.

“We want to focus on nonpharmacologic approaches for many of these [long-term care] residents,” said Gurau. “We have to do as much as we can to exhaust all the nonpharmacologic approaches.”

 

Preventing Hospitalizations

Another challenge to tackle in long-term care is the unnecessary transfer of residents to hospital emergency departments, according to Gurau. “In many situations, it’s worth trying as hard as we can to treat them in the nursing home, as opposed to having them go to hospital.”

Researchers estimated that 25% of the transfers from long-term care facilities in Canada to hospital emergency departments in 2014 were potentially preventable.

Urinary tract infections accounted for 30% of hospital emergency department visits for potentially preventable conditions by older patients who are residents in long-term care, according to 2013-2014 data from the Canadian Institute for Health Information.

“There are lots of downsides to going to the hospital [from long-term care],” Gurau told this news organization. “There are risks for infections, risks for increasing delirium and agitation [in patients with dementia], and risks for other behavior that can really impact somebody’s life.”

Gurau reported having no relevant financial relationships.

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

VANCOUVER, BRITISH COLUMBIA — Conditions like diabetes and dementia are common in patients who are admitted to long-term care facilities, but aggressive management of these conditions in long-term care residents is not recommended, according to a presentation given at the Family Medicine Forum (FMF) 2024.

Hospitalizations for hypoglycemia are risky for patients with diabetes who are residents of long-term care facilities, particularly those aged 75 years or older, said Adam Gurau, MD, a family physician in Toronto. Gurau completed a fellowship in care of the elderly at the University of Toronto, in Ontario, Canada.

“A lot of studies have shown diabetes-related hospitalizations,” said Gurau. He cited a 2014 study that found that hypoglycemia hospitalization rates were twice as high in older patients (age, 75 years or older) as in younger patients (age, 65-74 years).

“It is important to keep in mind that our residents in long-term care are at increasing risk for hypoglycemia, and we really should try to reduce [this risk] and not use dangerous medications or potentially dangerous [means of] diabetes management,” said Gurau.

A Canadian study that examined the composite risk for emergency department visits, hospitalizations, or death within 30 days of reaching intensive glycemic control with high-risk agents (such as insulin or sulfonylureas) suggested little benefit and possible harm in using these agents in adults aged 75 years or older.

In addition, current guidelines on diabetes management encourage a different approach. “Looking at some of the more recent North American guidelines, many of them actually now recommend relaxing glycemic targets to reduce overtreatment and prevent hypoglycemia,” said Gurau.

 

Deprescribing Medications

Medication reviews present opportunities for taking a global view of a patient’s treatments and determining whether any drug can be removed from the list. “What we want to do is optimize medications,” said Gurau. “We’re not talking about adding medications. We’re talking about removing medications, which is, I think, what we should be doing.”

Some research suggests that patients are open to deprescribing. One survey examined older adults (mean age, 79.1 years) with three or more chronic conditions who had been prescribed at least five medications. The researchers found that most participants (77%) were willing to deprescribe one or more medicines if a doctor advised that it was possible. “General practitioners may be able to increase deprescribing by building trust with their patients and communicating evidence about the risks of medication use,” the researchers wrote.

About 62% of seniors living in a residential care home have a diagnosis of Alzheimer’s disease or another dementia, according to the Alzheimer Society of Canada. Evidence suggests that nonpharmacologic approaches, such as massage and touch therapy and music, can manage neuropsychiatric symptoms, such as aggression and agitation, that are associated with dementia in older adults, noted Gurau.

“We want to focus on nonpharmacologic approaches for many of these [long-term care] residents,” said Gurau. “We have to do as much as we can to exhaust all the nonpharmacologic approaches.”

 

Preventing Hospitalizations

Another challenge to tackle in long-term care is the unnecessary transfer of residents to hospital emergency departments, according to Gurau. “In many situations, it’s worth trying as hard as we can to treat them in the nursing home, as opposed to having them go to hospital.”

Researchers estimated that 25% of the transfers from long-term care facilities in Canada to hospital emergency departments in 2014 were potentially preventable.

Urinary tract infections accounted for 30% of hospital emergency department visits for potentially preventable conditions by older patients who are residents in long-term care, according to 2013-2014 data from the Canadian Institute for Health Information.

“There are lots of downsides to going to the hospital [from long-term care],” Gurau told this news organization. “There are risks for infections, risks for increasing delirium and agitation [in patients with dementia], and risks for other behavior that can really impact somebody’s life.”

Gurau reported having no relevant financial relationships.

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

VANCOUVER, BRITISH COLUMBIA — Conditions like diabetes and dementia are common in patients who are admitted to long-term care facilities, but aggressive management of these conditions in long-term care residents is not recommended, according to a presentation given at the Family Medicine Forum (FMF) 2024.

Hospitalizations for hypoglycemia are risky for patients with diabetes who are residents of long-term care facilities, particularly those aged 75 years or older, said Adam Gurau, MD, a family physician in Toronto. Gurau completed a fellowship in care of the elderly at the University of Toronto, in Ontario, Canada.

“A lot of studies have shown diabetes-related hospitalizations,” said Gurau. He cited a 2014 study that found that hypoglycemia hospitalization rates were twice as high in older patients (age, 75 years or older) as in younger patients (age, 65-74 years).

“It is important to keep in mind that our residents in long-term care are at increasing risk for hypoglycemia, and we really should try to reduce [this risk] and not use dangerous medications or potentially dangerous [means of] diabetes management,” said Gurau.

A Canadian study that examined the composite risk for emergency department visits, hospitalizations, or death within 30 days of reaching intensive glycemic control with high-risk agents (such as insulin or sulfonylureas) suggested little benefit and possible harm in using these agents in adults aged 75 years or older.

In addition, current guidelines on diabetes management encourage a different approach. “Looking at some of the more recent North American guidelines, many of them actually now recommend relaxing glycemic targets to reduce overtreatment and prevent hypoglycemia,” said Gurau.

 

Deprescribing Medications

Medication reviews present opportunities for taking a global view of a patient’s treatments and determining whether any drug can be removed from the list. “What we want to do is optimize medications,” said Gurau. “We’re not talking about adding medications. We’re talking about removing medications, which is, I think, what we should be doing.”

Some research suggests that patients are open to deprescribing. One survey examined older adults (mean age, 79.1 years) with three or more chronic conditions who had been prescribed at least five medications. The researchers found that most participants (77%) were willing to deprescribe one or more medicines if a doctor advised that it was possible. “General practitioners may be able to increase deprescribing by building trust with their patients and communicating evidence about the risks of medication use,” the researchers wrote.

About 62% of seniors living in a residential care home have a diagnosis of Alzheimer’s disease or another dementia, according to the Alzheimer Society of Canada. Evidence suggests that nonpharmacologic approaches, such as massage and touch therapy and music, can manage neuropsychiatric symptoms, such as aggression and agitation, that are associated with dementia in older adults, noted Gurau.

“We want to focus on nonpharmacologic approaches for many of these [long-term care] residents,” said Gurau. “We have to do as much as we can to exhaust all the nonpharmacologic approaches.”

 

Preventing Hospitalizations

Another challenge to tackle in long-term care is the unnecessary transfer of residents to hospital emergency departments, according to Gurau. “In many situations, it’s worth trying as hard as we can to treat them in the nursing home, as opposed to having them go to hospital.”

Researchers estimated that 25% of the transfers from long-term care facilities in Canada to hospital emergency departments in 2014 were potentially preventable.

Urinary tract infections accounted for 30% of hospital emergency department visits for potentially preventable conditions by older patients who are residents in long-term care, according to 2013-2014 data from the Canadian Institute for Health Information.

“There are lots of downsides to going to the hospital [from long-term care],” Gurau told this news organization. “There are risks for infections, risks for increasing delirium and agitation [in patients with dementia], and risks for other behavior that can really impact somebody’s life.”

Gurau reported having no relevant financial relationships.

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