CHEST Physician

Medical innovations don’t happen overnight — but in today’s digital world, they happen pretty fast. Some are advancing faster than you think.

We’re not talking theory or hoped-for breakthroughs in the next decade. These technologies are already a reality for many doctors and expected to grow rapidly in the next 1-3 years.

Are you ready? Let’s find out.

1. Artificial Intelligence (AI) Medical Scribes

You may already be using this or, at the very least, have heard about it.

Physician burnout is a growing problem, with many doctors spending 2 hours on paperwork for every hour with patients. But some doctors, such as Gregory Ator, MD, chief medical informatics officer at the University of Kansas Medical Center, Kansas City, Kansas, have found a better way.

“I have been using it for 9 months now, and it truly is a life changer,” Dr. Ator said of Abridge, an AI helper that transcribes and summarizes his conversations with patients. “Now, I go into the room, place my phone just about anywhere, and I can just listen.” He estimated that the tech saves him between 3 and 10 minutes per patient. “At 20 patients a day, that saves me around 2 hours,” he said.

Bonus: Patients “get a doctor’s full attention instead of just looking at the top of his head while they play with the computer,” Dr. Ator said. “I have yet to have a patient who didn’t think that was a positive thing.”

Several companies are already selling these AI devices, including Ambience Healthcare, Augmedix, Nuance, and Suki, and they offer more than just transcriptions, said John D. Halamka, MD, president of Mayo Clinic Platform, who oversees Mayo’s adoption of AI. They also generate notes for treatment and billing and update data in the electronic health record.

“It’s preparation of documentation based on ambient listening of doctor-patient conversations,” Dr. Halamka explained. “I’m very optimistic about the use of emerging AI technologies to enable every clinician to practice at the top of their license.”

Patricia Garcia, MD, associate clinical information officer for ambulatory care at Stanford Health Care, has spent much of the last year co-running the medical center’s pilot program for AI scribes, and she’s so impressed with the technology that she “expects it’ll become more widely available as an option for any clinician that wants to use it in the next 12-18 months.”

2. Three-Dimensional (3D) Printing

Although 3D-printed organs may not happen anytime soon, the future is here for some 3D-printed prosthetics and implants — everything from dentures to spinal implants to prosthetic fingers and noses.

“In the next few years, I see rapid growth in the use of 3D printing technology across orthopedic surgery,” said Rishin J. Kadakia, MD, an orthopedic surgeon in Atlanta. “It’s becoming more common not just at large academic institutions. More and more providers will turn to using 3D printing technology to help tackle challenging cases that previously did not have good solutions.”

Dr. Kadakia has experienced this firsthand with his patients at the Emory Orthopaedics & Spine Center. One female patient developed talar avascular necrosis due to a bone break she’d sustained in a serious car crash. An ankle and subtalar joint fusion would repair the damage but limit her mobility and change her gait. So instead, in August of 2021, Dr. Kadakia and fellow orthopedic surgeon Jason Bariteau, MD, created for her a 3D-printed cobalt chrome talus implant.

“It provided an opportunity for her to keep her ankle’s range of motion, and also mobilize faster than with a subtalar and ankle joint fusion,” said Dr. Kadakia.

The technology is also playing a role in customized medical devices — patient-specific tools for greater precision — and 3D-printed anatomical models, built to the exact specifications of individual patients. Mayo Clinic already has 3D modeling units in three states, and other hospitals are following suit. The models not only help doctors prepare for complicated surgeries but also can dramatically cut down on costs. A 2021 study from Durham University reported that 3D models helped reduce surgery time by between 1.5 and 2.5 hours in lengthy procedures.

3. Drones

For patients who can’t make it to a pharmacy to pick up their prescriptions, either because of distance or lack of transportation, drones — which can deliver medications onto a customer’s back yard or front porch — offer a compelling solution.

Several companies and hospitals are already experimenting with drones, like WellSpan Health in Pennsylvania, Amazon Pharmacy, and the Cleveland Clinic, which announced a partnership with drone delivery company Zipline and plans to begin prescription deliveries across Northeast Ohio by 2025.

Healthcare systems are just beginning to explore the potential of drone deliveries, for everything from lab samples to medical and surgical supplies — even defibrillators that could arrive at an ailing patient’s front door before an emergency medical technician arrives.

“For many providers, when you take a sample from a patient, that sample waits around for hours until a courier picks up all of the facility’s samples and drives them to an outside facility for processing,” said Hillary Brendzel, head of Zipline’s US Healthcare Practice.

According to a 2022 survey from American Nurse Journal, 71% of nurses said that medical courier delays and errors negatively affected their ability to provide patient care. But with drone delivery, “lab samples can be sent for processing immediately, on-demand, resulting in faster diagnosis, treatment, and ultimately better outcomes,” said Ms. Brendzel.

4. Portable Ultrasound

Within the next 2 years, portable ultrasound — pocket-sized devices that connect to a smartphone or tablet — will become the “21st-century stethoscope,” said Abhilash Hareendranathan, PhD, assistant professor in the Department of Radiology and Diagnostic Imaging at the University of Alberta, in Edmonton, Alberta, Canada.

AI can make these devices easy to use, allowing clinicians with minimal imaging training to capture clear images and understand the results. Dr. Hareendranathan developed the Ultrasound Arm Injury Detection tool, a portable ultrasound that uses AI to detect fracture.

“We plan to introduce this technology in emergency departments, where it could be used by triage nurses to perform quick examinations to detect fractures of the wrist, elbow, or shoulder,” he said.

More pocket-sized scanners like these could “reshape the way diagnostic care is provided in rural and remote communities,” Dr. Hareendranathan said, and will “reduce wait times in crowded emergency departments.” Bill Gates believes enough in portable ultrasound that last September, the Bill & Melinda Gates Foundation granted $44 million to GE HealthCare to develop the technology for under-resourced communities.

5. Virtual Reality (VR)

When RelieVRx became the first US Food and Drug Administration (FDA)–approved VR therapy for chronic back pain in 2021, the technology was used in just a handful of Veterans Affairs (VA) facilities. But today, thousands of VR headsets have been deployed to more than 160 VA medical centers and clinics across the country.

“The VR experiences encompass pain neuroscience education, mindfulness, pleasant and relaxing distraction, and key skills to calm the nervous system,” said Beth Darnall, PhD, director of the Stanford Pain Relief Innovations Lab, who helped design the RelieVRx. She expects VR to go mainstream soon, not just because of increasing evidence that it works but also thanks to the Centers for Medicare & Medicaid Services, which recently issued a Healthcare Common Procedure Coding System code for VR. “This billing infrastructure will encourage adoption and uptake,” she said.

Hundreds of hospitals across the United States have already adopted the technology, for everything from childbirth pain to wound debridement, said Josh Sackman, the president and cofounder of AppliedVR, the company that developed RelieVRx.

“Over the next few years, we may see hundreds more deploy unique applications [for VR] that can handle multiple clinical indications,” he said. “Given the modality’s ability to scale and reduce reliance on pharmacological interventions, it has the power to improve the cost and quality of care.”

Hospital systems like Geisinger and Cedars-Sinai are already finding unique ways to implement the technology, he said, like using VR to reduce “scanxiety” during imaging service.

Other VR innovations are already being introduced, from the Smileyscope, a VR device for children that’s been proven to lessen the pain of a blood draw or intravenous insertion (it was cleared by the FDA last November) to several VR platforms launched by Cedars-Sinai in recent months, for applications that range from gastrointestinal issues to mental health therapy. “There may already be a thousand hospitals using VR in some capacity,” said Brennan Spiegel, MD, director of Health Services Research at Cedars-Sinai.

A version of this article appeared on Medscape.com.

Medical innovations don’t happen overnight — but in today’s digital world, they happen pretty fast. Some are advancing faster than you think.

We’re not talking theory or hoped-for breakthroughs in the next decade. These technologies are already a reality for many doctors and expected to grow rapidly in the next 1-3 years.

Are you ready? Let’s find out.

1. Artificial Intelligence (AI) Medical Scribes

You may already be using this or, at the very least, have heard about it.

Physician burnout is a growing problem, with many doctors spending 2 hours on paperwork for every hour with patients. But some doctors, such as Gregory Ator, MD, chief medical informatics officer at the University of Kansas Medical Center, Kansas City, Kansas, have found a better way.

“I have been using it for 9 months now, and it truly is a life changer,” Dr. Ator said of Abridge, an AI helper that transcribes and summarizes his conversations with patients. “Now, I go into the room, place my phone just about anywhere, and I can just listen.” He estimated that the tech saves him between 3 and 10 minutes per patient. “At 20 patients a day, that saves me around 2 hours,” he said.

Bonus: Patients “get a doctor’s full attention instead of just looking at the top of his head while they play with the computer,” Dr. Ator said. “I have yet to have a patient who didn’t think that was a positive thing.”

Several companies are already selling these AI devices, including Ambience Healthcare, Augmedix, Nuance, and Suki, and they offer more than just transcriptions, said John D. Halamka, MD, president of Mayo Clinic Platform, who oversees Mayo’s adoption of AI. They also generate notes for treatment and billing and update data in the electronic health record.

“It’s preparation of documentation based on ambient listening of doctor-patient conversations,” Dr. Halamka explained. “I’m very optimistic about the use of emerging AI technologies to enable every clinician to practice at the top of their license.”

Patricia Garcia, MD, associate clinical information officer for ambulatory care at Stanford Health Care, has spent much of the last year co-running the medical center’s pilot program for AI scribes, and she’s so impressed with the technology that she “expects it’ll become more widely available as an option for any clinician that wants to use it in the next 12-18 months.”

2. Three-Dimensional (3D) Printing

Although 3D-printed organs may not happen anytime soon, the future is here for some 3D-printed prosthetics and implants — everything from dentures to spinal implants to prosthetic fingers and noses.

“In the next few years, I see rapid growth in the use of 3D printing technology across orthopedic surgery,” said Rishin J. Kadakia, MD, an orthopedic surgeon in Atlanta. “It’s becoming more common not just at large academic institutions. More and more providers will turn to using 3D printing technology to help tackle challenging cases that previously did not have good solutions.”

Dr. Kadakia has experienced this firsthand with his patients at the Emory Orthopaedics & Spine Center. One female patient developed talar avascular necrosis due to a bone break she’d sustained in a serious car crash. An ankle and subtalar joint fusion would repair the damage but limit her mobility and change her gait. So instead, in August of 2021, Dr. Kadakia and fellow orthopedic surgeon Jason Bariteau, MD, created for her a 3D-printed cobalt chrome talus implant.

“It provided an opportunity for her to keep her ankle’s range of motion, and also mobilize faster than with a subtalar and ankle joint fusion,” said Dr. Kadakia.

The technology is also playing a role in customized medical devices — patient-specific tools for greater precision — and 3D-printed anatomical models, built to the exact specifications of individual patients. Mayo Clinic already has 3D modeling units in three states, and other hospitals are following suit. The models not only help doctors prepare for complicated surgeries but also can dramatically cut down on costs. A 2021 study from Durham University reported that 3D models helped reduce surgery time by between 1.5 and 2.5 hours in lengthy procedures.

3. Drones

For patients who can’t make it to a pharmacy to pick up their prescriptions, either because of distance or lack of transportation, drones — which can deliver medications onto a customer’s back yard or front porch — offer a compelling solution.

Several companies and hospitals are already experimenting with drones, like WellSpan Health in Pennsylvania, Amazon Pharmacy, and the Cleveland Clinic, which announced a partnership with drone delivery company Zipline and plans to begin prescription deliveries across Northeast Ohio by 2025.

Healthcare systems are just beginning to explore the potential of drone deliveries, for everything from lab samples to medical and surgical supplies — even defibrillators that could arrive at an ailing patient’s front door before an emergency medical technician arrives.

“For many providers, when you take a sample from a patient, that sample waits around for hours until a courier picks up all of the facility’s samples and drives them to an outside facility for processing,” said Hillary Brendzel, head of Zipline’s US Healthcare Practice.

According to a 2022 survey from American Nurse Journal, 71% of nurses said that medical courier delays and errors negatively affected their ability to provide patient care. But with drone delivery, “lab samples can be sent for processing immediately, on-demand, resulting in faster diagnosis, treatment, and ultimately better outcomes,” said Ms. Brendzel.

4. Portable Ultrasound

Within the next 2 years, portable ultrasound — pocket-sized devices that connect to a smartphone or tablet — will become the “21st-century stethoscope,” said Abhilash Hareendranathan, PhD, assistant professor in the Department of Radiology and Diagnostic Imaging at the University of Alberta, in Edmonton, Alberta, Canada.

AI can make these devices easy to use, allowing clinicians with minimal imaging training to capture clear images and understand the results. Dr. Hareendranathan developed the Ultrasound Arm Injury Detection tool, a portable ultrasound that uses AI to detect fracture.

“We plan to introduce this technology in emergency departments, where it could be used by triage nurses to perform quick examinations to detect fractures of the wrist, elbow, or shoulder,” he said.

More pocket-sized scanners like these could “reshape the way diagnostic care is provided in rural and remote communities,” Dr. Hareendranathan said, and will “reduce wait times in crowded emergency departments.” Bill Gates believes enough in portable ultrasound that last September, the Bill & Melinda Gates Foundation granted $44 million to GE HealthCare to develop the technology for under-resourced communities.

5. Virtual Reality (VR)

When RelieVRx became the first US Food and Drug Administration (FDA)–approved VR therapy for chronic back pain in 2021, the technology was used in just a handful of Veterans Affairs (VA) facilities. But today, thousands of VR headsets have been deployed to more than 160 VA medical centers and clinics across the country.

“The VR experiences encompass pain neuroscience education, mindfulness, pleasant and relaxing distraction, and key skills to calm the nervous system,” said Beth Darnall, PhD, director of the Stanford Pain Relief Innovations Lab, who helped design the RelieVRx. She expects VR to go mainstream soon, not just because of increasing evidence that it works but also thanks to the Centers for Medicare & Medicaid Services, which recently issued a Healthcare Common Procedure Coding System code for VR. “This billing infrastructure will encourage adoption and uptake,” she said.

Hundreds of hospitals across the United States have already adopted the technology, for everything from childbirth pain to wound debridement, said Josh Sackman, the president and cofounder of AppliedVR, the company that developed RelieVRx.

“Over the next few years, we may see hundreds more deploy unique applications [for VR] that can handle multiple clinical indications,” he said. “Given the modality’s ability to scale and reduce reliance on pharmacological interventions, it has the power to improve the cost and quality of care.”

Hospital systems like Geisinger and Cedars-Sinai are already finding unique ways to implement the technology, he said, like using VR to reduce “scanxiety” during imaging service.

Other VR innovations are already being introduced, from the Smileyscope, a VR device for children that’s been proven to lessen the pain of a blood draw or intravenous insertion (it was cleared by the FDA last November) to several VR platforms launched by Cedars-Sinai in recent months, for applications that range from gastrointestinal issues to mental health therapy. “There may already be a thousand hospitals using VR in some capacity,” said Brennan Spiegel, MD, director of Health Services Research at Cedars-Sinai.

A version of this article appeared on Medscape.com.

Medical innovations don’t happen overnight — but in today’s digital world, they happen pretty fast. Some are advancing faster than you think.

We’re not talking theory or hoped-for breakthroughs in the next decade. These technologies are already a reality for many doctors and expected to grow rapidly in the next 1-3 years.

Are you ready? Let’s find out.

1. Artificial Intelligence (AI) Medical Scribes

You may already be using this or, at the very least, have heard about it.

Physician burnout is a growing problem, with many doctors spending 2 hours on paperwork for every hour with patients. But some doctors, such as Gregory Ator, MD, chief medical informatics officer at the University of Kansas Medical Center, Kansas City, Kansas, have found a better way.

“I have been using it for 9 months now, and it truly is a life changer,” Dr. Ator said of Abridge, an AI helper that transcribes and summarizes his conversations with patients. “Now, I go into the room, place my phone just about anywhere, and I can just listen.” He estimated that the tech saves him between 3 and 10 minutes per patient. “At 20 patients a day, that saves me around 2 hours,” he said.

Bonus: Patients “get a doctor’s full attention instead of just looking at the top of his head while they play with the computer,” Dr. Ator said. “I have yet to have a patient who didn’t think that was a positive thing.”

Several companies are already selling these AI devices, including Ambience Healthcare, Augmedix, Nuance, and Suki, and they offer more than just transcriptions, said John D. Halamka, MD, president of Mayo Clinic Platform, who oversees Mayo’s adoption of AI. They also generate notes for treatment and billing and update data in the electronic health record.

“It’s preparation of documentation based on ambient listening of doctor-patient conversations,” Dr. Halamka explained. “I’m very optimistic about the use of emerging AI technologies to enable every clinician to practice at the top of their license.”

Patricia Garcia, MD, associate clinical information officer for ambulatory care at Stanford Health Care, has spent much of the last year co-running the medical center’s pilot program for AI scribes, and she’s so impressed with the technology that she “expects it’ll become more widely available as an option for any clinician that wants to use it in the next 12-18 months.”

2. Three-Dimensional (3D) Printing

Although 3D-printed organs may not happen anytime soon, the future is here for some 3D-printed prosthetics and implants — everything from dentures to spinal implants to prosthetic fingers and noses.

“In the next few years, I see rapid growth in the use of 3D printing technology across orthopedic surgery,” said Rishin J. Kadakia, MD, an orthopedic surgeon in Atlanta. “It’s becoming more common not just at large academic institutions. More and more providers will turn to using 3D printing technology to help tackle challenging cases that previously did not have good solutions.”

Dr. Kadakia has experienced this firsthand with his patients at the Emory Orthopaedics & Spine Center. One female patient developed talar avascular necrosis due to a bone break she’d sustained in a serious car crash. An ankle and subtalar joint fusion would repair the damage but limit her mobility and change her gait. So instead, in August of 2021, Dr. Kadakia and fellow orthopedic surgeon Jason Bariteau, MD, created for her a 3D-printed cobalt chrome talus implant.

“It provided an opportunity for her to keep her ankle’s range of motion, and also mobilize faster than with a subtalar and ankle joint fusion,” said Dr. Kadakia.

The technology is also playing a role in customized medical devices — patient-specific tools for greater precision — and 3D-printed anatomical models, built to the exact specifications of individual patients. Mayo Clinic already has 3D modeling units in three states, and other hospitals are following suit. The models not only help doctors prepare for complicated surgeries but also can dramatically cut down on costs. A 2021 study from Durham University reported that 3D models helped reduce surgery time by between 1.5 and 2.5 hours in lengthy procedures.

3. Drones

For patients who can’t make it to a pharmacy to pick up their prescriptions, either because of distance or lack of transportation, drones — which can deliver medications onto a customer’s back yard or front porch — offer a compelling solution.

Several companies and hospitals are already experimenting with drones, like WellSpan Health in Pennsylvania, Amazon Pharmacy, and the Cleveland Clinic, which announced a partnership with drone delivery company Zipline and plans to begin prescription deliveries across Northeast Ohio by 2025.

Healthcare systems are just beginning to explore the potential of drone deliveries, for everything from lab samples to medical and surgical supplies — even defibrillators that could arrive at an ailing patient’s front door before an emergency medical technician arrives.

“For many providers, when you take a sample from a patient, that sample waits around for hours until a courier picks up all of the facility’s samples and drives them to an outside facility for processing,” said Hillary Brendzel, head of Zipline’s US Healthcare Practice.

According to a 2022 survey from American Nurse Journal, 71% of nurses said that medical courier delays and errors negatively affected their ability to provide patient care. But with drone delivery, “lab samples can be sent for processing immediately, on-demand, resulting in faster diagnosis, treatment, and ultimately better outcomes,” said Ms. Brendzel.

4. Portable Ultrasound

Within the next 2 years, portable ultrasound — pocket-sized devices that connect to a smartphone or tablet — will become the “21st-century stethoscope,” said Abhilash Hareendranathan, PhD, assistant professor in the Department of Radiology and Diagnostic Imaging at the University of Alberta, in Edmonton, Alberta, Canada.

AI can make these devices easy to use, allowing clinicians with minimal imaging training to capture clear images and understand the results. Dr. Hareendranathan developed the Ultrasound Arm Injury Detection tool, a portable ultrasound that uses AI to detect fracture.

“We plan to introduce this technology in emergency departments, where it could be used by triage nurses to perform quick examinations to detect fractures of the wrist, elbow, or shoulder,” he said.

More pocket-sized scanners like these could “reshape the way diagnostic care is provided in rural and remote communities,” Dr. Hareendranathan said, and will “reduce wait times in crowded emergency departments.” Bill Gates believes enough in portable ultrasound that last September, the Bill & Melinda Gates Foundation granted $44 million to GE HealthCare to develop the technology for under-resourced communities.

5. Virtual Reality (VR)

When RelieVRx became the first US Food and Drug Administration (FDA)–approved VR therapy for chronic back pain in 2021, the technology was used in just a handful of Veterans Affairs (VA) facilities. But today, thousands of VR headsets have been deployed to more than 160 VA medical centers and clinics across the country.

“The VR experiences encompass pain neuroscience education, mindfulness, pleasant and relaxing distraction, and key skills to calm the nervous system,” said Beth Darnall, PhD, director of the Stanford Pain Relief Innovations Lab, who helped design the RelieVRx. She expects VR to go mainstream soon, not just because of increasing evidence that it works but also thanks to the Centers for Medicare & Medicaid Services, which recently issued a Healthcare Common Procedure Coding System code for VR. “This billing infrastructure will encourage adoption and uptake,” she said.

Hundreds of hospitals across the United States have already adopted the technology, for everything from childbirth pain to wound debridement, said Josh Sackman, the president and cofounder of AppliedVR, the company that developed RelieVRx.

“Over the next few years, we may see hundreds more deploy unique applications [for VR] that can handle multiple clinical indications,” he said. “Given the modality’s ability to scale and reduce reliance on pharmacological interventions, it has the power to improve the cost and quality of care.”

Hospital systems like Geisinger and Cedars-Sinai are already finding unique ways to implement the technology, he said, like using VR to reduce “scanxiety” during imaging service.

Other VR innovations are already being introduced, from the Smileyscope, a VR device for children that’s been proven to lessen the pain of a blood draw or intravenous insertion (it was cleared by the FDA last November) to several VR platforms launched by Cedars-Sinai in recent months, for applications that range from gastrointestinal issues to mental health therapy. “There may already be a thousand hospitals using VR in some capacity,” said Brennan Spiegel, MD, director of Health Services Research at Cedars-Sinai.

A version of this article appeared on Medscape.com.

On the heels of the January 2024 announcement by GlaxoSmithKline that its Flovent inhalers are being discontinued, Teva’s recent announcement that it will discontinue U.S. distribution of its Digihaler^® products is adding concern and complication to patients’ and physicians’ efforts to manage asthma symptoms.

“It is unfortunate to hear that more asthma inhalers are being discontinued,” Asthma and Allergy Foundation of America (AAFA) President and CEO Kenneth Mendez, said in an interview. The impact of Teva’s June 1 discontinuations of its Digihaler portfolio (ProAir Digihaler, AirDuo Digihaler, and ArmonAir Digihaler), he added, is only partially softened by Teva’s reassurance that its still-available RespiClick devices deliver the same drug formulations via the same devices as the ProAir and AirDuo products — because they lack the innovative digital component. “The Teva Digihaler portfolio had offered an innovative approach to encourage adherence to treatment by integrating a digital solution with an inhaler.”
 

Digital App Companion to Inhaler

The digital components of the AirDuo Digihaler (fluticasone propionate and salmeterol) inhalation powder and ArmonAir Digihaler (fluticasone propionate) inhalation powder, both maintenance inhalers for patients 12-years or older with asthma, include built-in Bluetooth^® wireless technology that connects to a companion mobile app. Their triggers for recording data on inhaler use are either the opening of the inhaler cap or the patient’s inhalation. The devices detect, record, and store data on inhaler use and peak inspiratory flow.

Also, they can remind the patient as to how often the devices have been used, measure inspiratory flow rates, and indicate when inhalation technique may need improvement. Data are then directly sent to the Digihaler app via Bluetooth technology, giving discretion to patients as to whether or not their data will be shared with health care providers.

When patients share their digital inhaler device-recorded data, Teva sources state, providers can more objectively assess the patients’ inhaler use patterns and habits to determine if they are using them as prescribed, and through inspiratory flow rates, judge whether or not patients may need inhaler technique coaching.
 

Possibility for Objective Data

“I was excited about the Digihaler when it was first launched,” said Maureen George, RN, PhD, of Columbia University School of Nursing, New York, “because it gave very good objective feedback on patients’ inhaler technique through peak inspiratory flow. It showed whether they missed doses or if there were patterns of increased use with increased symptoms.

“Inhaled medications are the only therapy that — if you inaccurately administer them — you don’t actually get any drug, at all,” she said in an interview. “If you don’t get the drug into the target organ, the lungs, you don’t get symptom relief, nor disease remission. Actually, most patients use their devices incorrectly, and most healthcare professionals can’t demonstrate correct delivery technique. At the pharmacy, you’re unlikely to see a real pharmacist, and more likely to see just a cashier. No other product that I know of has offered that degree of sophistication in terms of the different steps of inhaler technique.”
 

CONNECT2: Better Asthma Control at 24 Weeks

Benefits in asthma control for the Digihaler System have been confirmed recently in clinical research. The CONNECT2 trial compared asthma control with the Digihaler System (DS) versus standard of care (SoC) in patients 13 years or older with uncontrolled asthma (Asthma Control Test [ACT] score < 19). Investigators randomized them open-label 4:3 to the DS (n = 210) or SoC (n = 181) for 24 weeks. Primary endpoint assessment of the proportion of patients achieving well-controlled asthma (ie, an ACT score ≥ 20 or increase from baseline of ≥ 3 units at week 24) revealed an 88.7% higher probability that DS patients would have greater odds of achieving asthma control improvement at week 24, with 35% higher odds of asthma control in the DS group. Also, clinician-participant interactions, mostly addressing poor inhaler technique, were more frequent in the DS group. Six-month adherence was good (68.6%, vs 79.2% at month 1), and reliever use at month 6 was decreased by 38.2% from baseline in the DS group.

Lack of Inhaler Uptake

“It made me sad to hear that it was going away. It’s a device that should have been useful,” Dr. George said, “but the wonderful features that could have come at an individual level or at a population health level just were never realized. I don’t think it was from lack of trying on the company’s part, but when it was launched, insurance companies wouldn’t pay the extra cost that comes with having an integrated electronic monitoring device. They weren’t convinced that the return on investment down the road from improved disease control and fewer very expensive acute hospitalizations was worth it. So the uptake was poor.”

Where does this leave patients? Mr. Mendez stated, “It is imperative that people using Teva’s Digihaler products to treat their asthma reach out to their provider now to determine the best alternative treatment options. Unfortunately, when GSK discontinued Flovent, some people using that inhaler were transitioned to the ArmonAir Digihaler. Also, some formularies do not cover the authorized generic of Flovent, forcing patients to change treatment.”

The AAFA press release of April 15 lists in detail available alternatives to Teva’s discontinued devices, naming quick-relief inhalers and inhaled corticosteroids, noting where dosing, devices, or active ingredients are at variance from the Teva products. The AAFA document also lists and describes inhaler device types (metered dose inhaler, breath actuated inhaler, dry powder inhaler and soft mist inhaler) and their differences in detail.

On the heels of the January 2024 announcement by GlaxoSmithKline that its Flovent inhalers are being discontinued, Teva’s recent announcement that it will discontinue U.S. distribution of its Digihaler^® products is adding concern and complication to patients’ and physicians’ efforts to manage asthma symptoms.

“It is unfortunate to hear that more asthma inhalers are being discontinued,” Asthma and Allergy Foundation of America (AAFA) President and CEO Kenneth Mendez, said in an interview. The impact of Teva’s June 1 discontinuations of its Digihaler portfolio (ProAir Digihaler, AirDuo Digihaler, and ArmonAir Digihaler), he added, is only partially softened by Teva’s reassurance that its still-available RespiClick devices deliver the same drug formulations via the same devices as the ProAir and AirDuo products — because they lack the innovative digital component. “The Teva Digihaler portfolio had offered an innovative approach to encourage adherence to treatment by integrating a digital solution with an inhaler.”
 

Digital App Companion to Inhaler

The digital components of the AirDuo Digihaler (fluticasone propionate and salmeterol) inhalation powder and ArmonAir Digihaler (fluticasone propionate) inhalation powder, both maintenance inhalers for patients 12-years or older with asthma, include built-in Bluetooth^® wireless technology that connects to a companion mobile app. Their triggers for recording data on inhaler use are either the opening of the inhaler cap or the patient’s inhalation. The devices detect, record, and store data on inhaler use and peak inspiratory flow.

Also, they can remind the patient as to how often the devices have been used, measure inspiratory flow rates, and indicate when inhalation technique may need improvement. Data are then directly sent to the Digihaler app via Bluetooth technology, giving discretion to patients as to whether or not their data will be shared with health care providers.

When patients share their digital inhaler device-recorded data, Teva sources state, providers can more objectively assess the patients’ inhaler use patterns and habits to determine if they are using them as prescribed, and through inspiratory flow rates, judge whether or not patients may need inhaler technique coaching.
 

Possibility for Objective Data

“I was excited about the Digihaler when it was first launched,” said Maureen George, RN, PhD, of Columbia University School of Nursing, New York, “because it gave very good objective feedback on patients’ inhaler technique through peak inspiratory flow. It showed whether they missed doses or if there were patterns of increased use with increased symptoms.

“Inhaled medications are the only therapy that — if you inaccurately administer them — you don’t actually get any drug, at all,” she said in an interview. “If you don’t get the drug into the target organ, the lungs, you don’t get symptom relief, nor disease remission. Actually, most patients use their devices incorrectly, and most healthcare professionals can’t demonstrate correct delivery technique. At the pharmacy, you’re unlikely to see a real pharmacist, and more likely to see just a cashier. No other product that I know of has offered that degree of sophistication in terms of the different steps of inhaler technique.”
 

CONNECT2: Better Asthma Control at 24 Weeks

Benefits in asthma control for the Digihaler System have been confirmed recently in clinical research. The CONNECT2 trial compared asthma control with the Digihaler System (DS) versus standard of care (SoC) in patients 13 years or older with uncontrolled asthma (Asthma Control Test [ACT] score < 19). Investigators randomized them open-label 4:3 to the DS (n = 210) or SoC (n = 181) for 24 weeks. Primary endpoint assessment of the proportion of patients achieving well-controlled asthma (ie, an ACT score ≥ 20 or increase from baseline of ≥ 3 units at week 24) revealed an 88.7% higher probability that DS patients would have greater odds of achieving asthma control improvement at week 24, with 35% higher odds of asthma control in the DS group. Also, clinician-participant interactions, mostly addressing poor inhaler technique, were more frequent in the DS group. Six-month adherence was good (68.6%, vs 79.2% at month 1), and reliever use at month 6 was decreased by 38.2% from baseline in the DS group.

Lack of Inhaler Uptake

“It made me sad to hear that it was going away. It’s a device that should have been useful,” Dr. George said, “but the wonderful features that could have come at an individual level or at a population health level just were never realized. I don’t think it was from lack of trying on the company’s part, but when it was launched, insurance companies wouldn’t pay the extra cost that comes with having an integrated electronic monitoring device. They weren’t convinced that the return on investment down the road from improved disease control and fewer very expensive acute hospitalizations was worth it. So the uptake was poor.”

Where does this leave patients? Mr. Mendez stated, “It is imperative that people using Teva’s Digihaler products to treat their asthma reach out to their provider now to determine the best alternative treatment options. Unfortunately, when GSK discontinued Flovent, some people using that inhaler were transitioned to the ArmonAir Digihaler. Also, some formularies do not cover the authorized generic of Flovent, forcing patients to change treatment.”

The AAFA press release of April 15 lists in detail available alternatives to Teva’s discontinued devices, naming quick-relief inhalers and inhaled corticosteroids, noting where dosing, devices, or active ingredients are at variance from the Teva products. The AAFA document also lists and describes inhaler device types (metered dose inhaler, breath actuated inhaler, dry powder inhaler and soft mist inhaler) and their differences in detail.

On the heels of the January 2024 announcement by GlaxoSmithKline that its Flovent inhalers are being discontinued, Teva’s recent announcement that it will discontinue U.S. distribution of its Digihaler^® products is adding concern and complication to patients’ and physicians’ efforts to manage asthma symptoms.

“It is unfortunate to hear that more asthma inhalers are being discontinued,” Asthma and Allergy Foundation of America (AAFA) President and CEO Kenneth Mendez, said in an interview. The impact of Teva’s June 1 discontinuations of its Digihaler portfolio (ProAir Digihaler, AirDuo Digihaler, and ArmonAir Digihaler), he added, is only partially softened by Teva’s reassurance that its still-available RespiClick devices deliver the same drug formulations via the same devices as the ProAir and AirDuo products — because they lack the innovative digital component. “The Teva Digihaler portfolio had offered an innovative approach to encourage adherence to treatment by integrating a digital solution with an inhaler.”
 

Digital App Companion to Inhaler

The digital components of the AirDuo Digihaler (fluticasone propionate and salmeterol) inhalation powder and ArmonAir Digihaler (fluticasone propionate) inhalation powder, both maintenance inhalers for patients 12-years or older with asthma, include built-in Bluetooth^® wireless technology that connects to a companion mobile app. Their triggers for recording data on inhaler use are either the opening of the inhaler cap or the patient’s inhalation. The devices detect, record, and store data on inhaler use and peak inspiratory flow.

Also, they can remind the patient as to how often the devices have been used, measure inspiratory flow rates, and indicate when inhalation technique may need improvement. Data are then directly sent to the Digihaler app via Bluetooth technology, giving discretion to patients as to whether or not their data will be shared with health care providers.

When patients share their digital inhaler device-recorded data, Teva sources state, providers can more objectively assess the patients’ inhaler use patterns and habits to determine if they are using them as prescribed, and through inspiratory flow rates, judge whether or not patients may need inhaler technique coaching.
 

Possibility for Objective Data

“I was excited about the Digihaler when it was first launched,” said Maureen George, RN, PhD, of Columbia University School of Nursing, New York, “because it gave very good objective feedback on patients’ inhaler technique through peak inspiratory flow. It showed whether they missed doses or if there were patterns of increased use with increased symptoms.

“Inhaled medications are the only therapy that — if you inaccurately administer them — you don’t actually get any drug, at all,” she said in an interview. “If you don’t get the drug into the target organ, the lungs, you don’t get symptom relief, nor disease remission. Actually, most patients use their devices incorrectly, and most healthcare professionals can’t demonstrate correct delivery technique. At the pharmacy, you’re unlikely to see a real pharmacist, and more likely to see just a cashier. No other product that I know of has offered that degree of sophistication in terms of the different steps of inhaler technique.”
 

CONNECT2: Better Asthma Control at 24 Weeks

Benefits in asthma control for the Digihaler System have been confirmed recently in clinical research. The CONNECT2 trial compared asthma control with the Digihaler System (DS) versus standard of care (SoC) in patients 13 years or older with uncontrolled asthma (Asthma Control Test [ACT] score < 19). Investigators randomized them open-label 4:3 to the DS (n = 210) or SoC (n = 181) for 24 weeks. Primary endpoint assessment of the proportion of patients achieving well-controlled asthma (ie, an ACT score ≥ 20 or increase from baseline of ≥ 3 units at week 24) revealed an 88.7% higher probability that DS patients would have greater odds of achieving asthma control improvement at week 24, with 35% higher odds of asthma control in the DS group. Also, clinician-participant interactions, mostly addressing poor inhaler technique, were more frequent in the DS group. Six-month adherence was good (68.6%, vs 79.2% at month 1), and reliever use at month 6 was decreased by 38.2% from baseline in the DS group.

Lack of Inhaler Uptake

“It made me sad to hear that it was going away. It’s a device that should have been useful,” Dr. George said, “but the wonderful features that could have come at an individual level or at a population health level just were never realized. I don’t think it was from lack of trying on the company’s part, but when it was launched, insurance companies wouldn’t pay the extra cost that comes with having an integrated electronic monitoring device. They weren’t convinced that the return on investment down the road from improved disease control and fewer very expensive acute hospitalizations was worth it. So the uptake was poor.”

Where does this leave patients? Mr. Mendez stated, “It is imperative that people using Teva’s Digihaler products to treat their asthma reach out to their provider now to determine the best alternative treatment options. Unfortunately, when GSK discontinued Flovent, some people using that inhaler were transitioned to the ArmonAir Digihaler. Also, some formularies do not cover the authorized generic of Flovent, forcing patients to change treatment.”

The AAFA press release of April 15 lists in detail available alternatives to Teva’s discontinued devices, naming quick-relief inhalers and inhaled corticosteroids, noting where dosing, devices, or active ingredients are at variance from the Teva products. The AAFA document also lists and describes inhaler device types (metered dose inhaler, breath actuated inhaler, dry powder inhaler and soft mist inhaler) and their differences in detail.

After cow-to-cow transmission of avian influenza A subtype H5N1 in US dairy herds led to a cow-to-human transmission in Texas, the Association of State and Territorial Health Officials convened a panel of experts for a scientific symposium on Thursday to talk about the public health implications.

“The risk to the general public remains low,” said Vivien Dugan, PhD, director of the Influenza Division at the Centers for Disease Control and Prevention (CDC). And should there be an outbreak, vaccine development measures are in place, she added.

From the sequencing data, “we can expect and anticipate that [the candidate vaccine viruses] will provide good protection,” she explained.

Establishing candidate vaccine viruses “are the precursor to moving into large-scale vaccine production,” Dr. Dugan explained. Should that be needed, the candidate viruses can be used by manufacturers to produce new vaccines.

The CDC is also actively partnering with commercial diagnostic developers and testing companies in case there is a need to scale-up testing, Dr. Dugan said.

The only current human case in the United States was reported on April 1 and confirmed by the CDC within 24 hours, reported Sonja Olsen, PhD, associate director for preparedness and response of the Influenza Division at the CDC.

The person had direct exposure to cattle and reported eye redness, consistent with conjunctivitis, as the only symptom. The person received treatment and has recovered, and there were no reports of illness among the person’s household contacts, Dr. Olsen said.
 

Person With the Virus Has Recovered

The only other detection of the virus in a human in the United States was in 2022 and it was associated with infected poultry exposure. That person also had mild illness and recovered, Dr. Olsen explained.

Since 1997, when the first case of human infection was reported globally, “there have been 909 [human cases] reported from 23 countries,” Dr. Olsen said. “About half [52%] of the human cases have resulted in death.” Only a small number of human cases have been reported since 2015, but since 2022, more than two dozen human cases have been reported to the World Health Organization.

Experience with the virus in the United States has been about a year behind that in Europe, said Rosemary Sifford, DVM, chief veterinary officer at the US Department of Agriculture. In the United States, the first detection — in January 2022 — was in wild birds; this was followed the next month by the first detection in a commercial poultry flock.

In March of this year, the United States had its first detection in cattle, specifically dairy cattle. But testing has shown that “it remains very much an avian virus. It’s not becoming a bovine virus,” Dr. Sifford reported.
 

Detected in Cattle

Earlier this week, in an effort to minimize the risk of disease spread, the USDA issued a federal order that requires the reporting of positive influenza tests in livestock and mandatory testing for influenza of dairy cattle before interstate movement.

“As of today, there are affected herds in 33 farms across eight states,” reported Dr. Olsen.

Tests are ongoing to determine how the virus is traveling, but “what we can say is that there’s a high viral load in the milk in the cattle, and it appears that the transmission is happening mostly within the lactating herds,” Dr. Sifford reported. It is unclear whether that is happening during the milking of the cows or whether contaminated milk from a cow with a high viral load is transmitting the virus to other cattle.

“We are strongly encouraging producers to limit the movement of cattle, particularly lactating cattle, as much as possible,” she says.
 

Milk Is Likely the Source of Transmission

“We haven’t seen anything that would change our assessment that the commercial milk supply is safe,” says Donald Prater, DVM, acting director of the Center for Food Safety and Applied Nutrition at the US Food and Drug Administration (FDA).

In the federal and state milk safety system, he explained, nearly 99% of the commercial milk supply comes from farms that participate in the Grade A program and follow the Pasteurized Milk Ordinance, which outlines pasteurization requirements.

Because detection of the virus in dairy cattle is new, there are many questions to be answered in research, he reported. Among them:

• What level of virus might be leaving the farms from shedding by apparently healthy cows?
• Does any live virus survive the pasteurization process?
• Do different methods of pasteurization and dairy production have different effects on the viability of H5N1?
• Are effects different in various forms of dairy products, such as cheese and cream?

A critical question regarding the potential risk to humans is how much milk would have to be consumed for the virus to become an established infection. That information is essential to determine “what type of pasteurization criteria” are needed to provide “acceptable public health outcomes,” Dr. Prater said.

The CDC is currently using the flu surveillance system to monitor for H5N1 activity in people. The systems show no current indicators of unusual influenza activity in people.

A version of this article appeared on Medscape.com.

After cow-to-cow transmission of avian influenza A subtype H5N1 in US dairy herds led to a cow-to-human transmission in Texas, the Association of State and Territorial Health Officials convened a panel of experts for a scientific symposium on Thursday to talk about the public health implications.

“The risk to the general public remains low,” said Vivien Dugan, PhD, director of the Influenza Division at the Centers for Disease Control and Prevention (CDC). And should there be an outbreak, vaccine development measures are in place, she added.

From the sequencing data, “we can expect and anticipate that [the candidate vaccine viruses] will provide good protection,” she explained.

Establishing candidate vaccine viruses “are the precursor to moving into large-scale vaccine production,” Dr. Dugan explained. Should that be needed, the candidate viruses can be used by manufacturers to produce new vaccines.

The CDC is also actively partnering with commercial diagnostic developers and testing companies in case there is a need to scale-up testing, Dr. Dugan said.

The only current human case in the United States was reported on April 1 and confirmed by the CDC within 24 hours, reported Sonja Olsen, PhD, associate director for preparedness and response of the Influenza Division at the CDC.

The person had direct exposure to cattle and reported eye redness, consistent with conjunctivitis, as the only symptom. The person received treatment and has recovered, and there were no reports of illness among the person’s household contacts, Dr. Olsen said.
 

Person With the Virus Has Recovered

The only other detection of the virus in a human in the United States was in 2022 and it was associated with infected poultry exposure. That person also had mild illness and recovered, Dr. Olsen explained.

Since 1997, when the first case of human infection was reported globally, “there have been 909 [human cases] reported from 23 countries,” Dr. Olsen said. “About half [52%] of the human cases have resulted in death.” Only a small number of human cases have been reported since 2015, but since 2022, more than two dozen human cases have been reported to the World Health Organization.

Experience with the virus in the United States has been about a year behind that in Europe, said Rosemary Sifford, DVM, chief veterinary officer at the US Department of Agriculture. In the United States, the first detection — in January 2022 — was in wild birds; this was followed the next month by the first detection in a commercial poultry flock.

In March of this year, the United States had its first detection in cattle, specifically dairy cattle. But testing has shown that “it remains very much an avian virus. It’s not becoming a bovine virus,” Dr. Sifford reported.
 

Detected in Cattle

Earlier this week, in an effort to minimize the risk of disease spread, the USDA issued a federal order that requires the reporting of positive influenza tests in livestock and mandatory testing for influenza of dairy cattle before interstate movement.

“As of today, there are affected herds in 33 farms across eight states,” reported Dr. Olsen.

Tests are ongoing to determine how the virus is traveling, but “what we can say is that there’s a high viral load in the milk in the cattle, and it appears that the transmission is happening mostly within the lactating herds,” Dr. Sifford reported. It is unclear whether that is happening during the milking of the cows or whether contaminated milk from a cow with a high viral load is transmitting the virus to other cattle.

“We are strongly encouraging producers to limit the movement of cattle, particularly lactating cattle, as much as possible,” she says.
 

Milk Is Likely the Source of Transmission

“We haven’t seen anything that would change our assessment that the commercial milk supply is safe,” says Donald Prater, DVM, acting director of the Center for Food Safety and Applied Nutrition at the US Food and Drug Administration (FDA).

In the federal and state milk safety system, he explained, nearly 99% of the commercial milk supply comes from farms that participate in the Grade A program and follow the Pasteurized Milk Ordinance, which outlines pasteurization requirements.

Because detection of the virus in dairy cattle is new, there are many questions to be answered in research, he reported. Among them:

• What level of virus might be leaving the farms from shedding by apparently healthy cows?
• Does any live virus survive the pasteurization process?
• Do different methods of pasteurization and dairy production have different effects on the viability of H5N1?
• Are effects different in various forms of dairy products, such as cheese and cream?

A critical question regarding the potential risk to humans is how much milk would have to be consumed for the virus to become an established infection. That information is essential to determine “what type of pasteurization criteria” are needed to provide “acceptable public health outcomes,” Dr. Prater said.

The CDC is currently using the flu surveillance system to monitor for H5N1 activity in people. The systems show no current indicators of unusual influenza activity in people.

A version of this article appeared on Medscape.com.

After cow-to-cow transmission of avian influenza A subtype H5N1 in US dairy herds led to a cow-to-human transmission in Texas, the Association of State and Territorial Health Officials convened a panel of experts for a scientific symposium on Thursday to talk about the public health implications.

“The risk to the general public remains low,” said Vivien Dugan, PhD, director of the Influenza Division at the Centers for Disease Control and Prevention (CDC). And should there be an outbreak, vaccine development measures are in place, she added.

From the sequencing data, “we can expect and anticipate that [the candidate vaccine viruses] will provide good protection,” she explained.

Establishing candidate vaccine viruses “are the precursor to moving into large-scale vaccine production,” Dr. Dugan explained. Should that be needed, the candidate viruses can be used by manufacturers to produce new vaccines.

The CDC is also actively partnering with commercial diagnostic developers and testing companies in case there is a need to scale-up testing, Dr. Dugan said.

The only current human case in the United States was reported on April 1 and confirmed by the CDC within 24 hours, reported Sonja Olsen, PhD, associate director for preparedness and response of the Influenza Division at the CDC.

The person had direct exposure to cattle and reported eye redness, consistent with conjunctivitis, as the only symptom. The person received treatment and has recovered, and there were no reports of illness among the person’s household contacts, Dr. Olsen said.
 

Person With the Virus Has Recovered

The only other detection of the virus in a human in the United States was in 2022 and it was associated with infected poultry exposure. That person also had mild illness and recovered, Dr. Olsen explained.

Since 1997, when the first case of human infection was reported globally, “there have been 909 [human cases] reported from 23 countries,” Dr. Olsen said. “About half [52%] of the human cases have resulted in death.” Only a small number of human cases have been reported since 2015, but since 2022, more than two dozen human cases have been reported to the World Health Organization.

Experience with the virus in the United States has been about a year behind that in Europe, said Rosemary Sifford, DVM, chief veterinary officer at the US Department of Agriculture. In the United States, the first detection — in January 2022 — was in wild birds; this was followed the next month by the first detection in a commercial poultry flock.

In March of this year, the United States had its first detection in cattle, specifically dairy cattle. But testing has shown that “it remains very much an avian virus. It’s not becoming a bovine virus,” Dr. Sifford reported.
 

Detected in Cattle

Earlier this week, in an effort to minimize the risk of disease spread, the USDA issued a federal order that requires the reporting of positive influenza tests in livestock and mandatory testing for influenza of dairy cattle before interstate movement.

“As of today, there are affected herds in 33 farms across eight states,” reported Dr. Olsen.

Tests are ongoing to determine how the virus is traveling, but “what we can say is that there’s a high viral load in the milk in the cattle, and it appears that the transmission is happening mostly within the lactating herds,” Dr. Sifford reported. It is unclear whether that is happening during the milking of the cows or whether contaminated milk from a cow with a high viral load is transmitting the virus to other cattle.

“We are strongly encouraging producers to limit the movement of cattle, particularly lactating cattle, as much as possible,” she says.
 

Milk Is Likely the Source of Transmission

“We haven’t seen anything that would change our assessment that the commercial milk supply is safe,” says Donald Prater, DVM, acting director of the Center for Food Safety and Applied Nutrition at the US Food and Drug Administration (FDA).

In the federal and state milk safety system, he explained, nearly 99% of the commercial milk supply comes from farms that participate in the Grade A program and follow the Pasteurized Milk Ordinance, which outlines pasteurization requirements.

Because detection of the virus in dairy cattle is new, there are many questions to be answered in research, he reported. Among them:

• What level of virus might be leaving the farms from shedding by apparently healthy cows?
• Does any live virus survive the pasteurization process?
• Do different methods of pasteurization and dairy production have different effects on the viability of H5N1?
• Are effects different in various forms of dairy products, such as cheese and cream?

A critical question regarding the potential risk to humans is how much milk would have to be consumed for the virus to become an established infection. That information is essential to determine “what type of pasteurization criteria” are needed to provide “acceptable public health outcomes,” Dr. Prater said.

The CDC is currently using the flu surveillance system to monitor for H5N1 activity in people. The systems show no current indicators of unusual influenza activity in people.

A version of this article appeared on Medscape.com.

When child psychiatrist Javeed Sukhera, MD, PhD, was a few years into his career, he found himself doing it all. “I was in a leadership role academically at the medical school, I had a leadership role at the hospital, and I was seeing as many patients as I could. I could work all day every day.”

“It still wouldn’t have been enough,” he said.

Whenever there was a shift available, Dr. Sukhera would take it. His job was stressful, but as a new physician with a young family, he saw this obsession with work as necessary. “I began to cope with the stress from work by doing extra work and feeling like I needed to be everywhere. It was like I became a hamster on a spinning wheel. I was just running, running, running.”

Things shifted for Dr. Sukhera when he realized that while he was emotionally available for the children who were his patients, at home, his own children weren’t getting the best of him. “There was a specific moment when I thought my son was afraid of me,” he said. “I just stopped and realized that there was something happening that I needed to break. I needed to make a change.”

Dr. Sukhera, now chair of psychiatry at the Institute of Living and chief of the Department of Psychiatry at Hartford Hospital, Hartford, Connecticut, believes what he experienced was a steep fall into work addiction. “Workaholism,” often dismissed as simply working hard, is a nonclinical addiction that could fall under the umbrella of a behavioral addiction, and healthcare professionals may be especially at risk.
 

What Does Work Addiction Look Like for Doctors?

Behavioral addictions are fairly new in the addiction space. When gambling disorder, the first and only behavioral addiction in the Diagnostic and Statistical Manual of Mental Disorders, Fifth Edition, was added in 2013, it was seen as a “breakthrough addiction,” said Mark D. Griffiths, PhD, a leading behavioral addiction researcher and a distinguished professor at Nottingham Trent University.

Because there is not enough evidence yet to classify work addiction as a formal diagnosis, there is no clear consensus on how to define it. To further complicate things, the terms “workaholism” and “work addiction” can be used interchangeably, and some experts say the two are not the same, though they can overlap.

That said, a 2018 review of literature from several countries found that work addiction “fits very well into recently postulated criteria for conceptualization of a behavioral addiction.

“If you accept that gambling can be genuinely addictive, then there’s no reason to think that something like work, exercise, or video game playing couldn’t be an addiction as well,” said Dr. Griffiths.

“The neurobiology of addiction is that we get drawn to something that gives us a dopamine hit,” Dr. Sukhera added. “But to do that all day, every day, has consequences. It drains our emotional reserves, and it can greatly impact our relationships.”

On top of that, work addiction has been linked with poor sleep, poor cardiovascular health, high blood pressure, burnout, the development of autoimmune disorders, and other health issues.

Physicians are particularly susceptible. Doctors, after all, are expected to work long hours and put their patients’ needs first, even at the expense of their own health and well-being.

“Workaholism is not just socially acceptable in medicine,” said Dr. Sukhera. “It’s baked into the system and built into the structures. The healthcare system has largely functioned on the emotional labor of health workers, whose tendency to show up and work harder can, at times, in certain organizations, be exploited.”

Dr. Griffiths agreed that with the limited amount of data available, work addiction does appear to exist at higher rates in medicine than in other fields. As early as the 1970s, medical literature describes work as a “socially acceptable” addiction among doctors. A 2014 study published in Occupational Medicine reported that of 445 physicians who took part in the research, nearly half exhibited some level of work addiction with 13% “highly work addicted.”

Of course, working hard or even meeting unreasonable demands from work is not the same as work addiction, as Dr. Griffiths clarified in a 2023 editorial in BMJ Quality & Safety. The difference, as with other behavioral addictions, is when people obsess about work and use it to cope with stress. It can be easier to stay distracted and busy to gain a sense of control rather than learning to deal with complex emotions.

A 2021 study that Dr. Sukhera conducted with resident physicians found that working harder was one of the main ways they dealt with stress during the COVID-19 pandemic. “This idea that we deal with the stress of being burnt out by doing more and more of what burns us out is fairly ubiquitous at all stages of medical professionals’ careers,” he said.

Financial incentives also can fuel work addiction, said Dr. Sukhera. In residency, there are some safeguards around overwork and duty hours. When you become an attending, those limits no longer exist. As a young physician, Dr. Sukhera had student debt to pay off and a family to support. When he found opportunities to earn more by working more, his answer was always “yes.”

Pressure to produce medical research also can pose issues. Some physicians can become addicted to publishing studies, fearing that they might lose their professional status or position if they stop. It’s a cycle that can force a doctor to not only work long hours doing their job but also practically take on a second one.
 

How Physicians Can Recognize Work Addiction in Themselves

Work addiction can look and feel different for every person, said Malissa Clark, PhD, associate professor at the University of Georgia and author of the recent book Never Not Working: Why the Always-On Culture Is Bad for Business—and How to Fix It.

Dr. Clark noted that people who are highly engaged in their work tend to be driven by intrinsic motivation: “You work because you love it.” With work addiction, “you work because you feel like you ought to be working all the time.”

Of course, it’s not always so cut and dried; you can experience both forms of motivation and not necessarily become addicted to work. But if you are solely driven by the feeling that you ought to be working all the time, that can be a red flag.

Dr. Griffiths said that while many people may have problematic work habits or work too much, true work addicts must meet six criteria that apply to all addictions:

1. Salience: Work is the single most important thing in your life, to the point of neglecting everything else. Even if you’re on vacation, your mind might be flooded with work thoughts.

2. Mood modification: You use work to modify your mood, either to get a “high” or to cope with stress.

3. Tolerance: Over time, you’ve gone from working 8 or 10 hours a day to 12 hours a day, to a point where you’re working all the time.

4. Withdrawal: On a physiological level, you will have symptoms such as anxiety, nausea, or headaches when unable to work.

5. Conflict: You feel conflicted with yourself (you know you’re working too much) or with others (partners, friends, and children) about work, but you can’t stop.

6. Relapse: If you manage to cut down your hours but can’t resist overworking 1 day, you wind up right back where you were.
 

When It’s Time to Address Work Addiction

The lack of a formal diagnosis for work addiction makes getting treatment difficult. But there are ways to seek help. Unlike the drug and alcohol literature, abstinence is not the goal. “The therapeutic goal is getting a behavior under control and looking for the triggers of why you’re compulsively working,” said Dr. Griffiths.

Practice self-compassion

Dr. Sukhera eventually realized that his work addiction stemmed from the fear of being somehow excluded or unworthy. He actively corrected much of this through self-compassion and self-kindness, which helped him set boundaries. “Self-compassion is the root of everything,” he said. “Reminding ourselves that we’re doing our best is an important ingredient in breaking the cycle.”

Slowly expose yourself to relaxation

Many workaholics find rest very difficult. “When I conducted interviews with people [who considered themselves workaholics], a very common thing I heard was, ‘I have a very hard time being idle,’ ” said Dr. Clark. If rest feels hard, Dr. Sukhera suggests practicing relaxation for 2 minutes to start. Even small periods of downtime can challenge the belief that you must be constantly productive.

Reframe your to-do list 

For work addicts, to-do lists can seem like they must be finished, which prolongs work hours. Instead, use to-do lists to help prioritize what is urgent, identify what can wait, and delegate out tasks to others, Dr. Clark recommends.

Pick up a mastery experience

Research from professor Sabine Sonnentag, Dr. rer. nat., at the University of Mannheim, Mannheim, Germany, suggests that mastery experiences — leisure activities that require thought and focus like learning a new language or taking a woodworking class — can help you actively disengage from work.

Try cognitive behavioral therapy

Widely used for other forms of addiction, cognitive behavioral therapy centers around recognizing emotions, challenging thought patterns, and changing behaviors. However, Dr. Clark admits the research on its impact on work addiction, in particular, is “pretty nascent.”

Shift your mindset

It seems logical to think that detaching from your feelings will allow you to “do more,” but experts say that idea is both untrue and dangerous. “The safest hospitals are the hospitals where people are attuned to their humanness,” said Dr. Sukhera. “It’s normal to overwork in medicine, and if you’re challenging a norm, you really have to be thoughtful about how you frame that for yourself.”

Most importantly: Seek support

Today, there is increased awareness about work addiction and more resources for physicians who are struggling, including programs such as Workaholics Anonymous or Physicians Anonymous and workplace wellness initiatives. But try not to overwhelm yourself with choosing whom to talk to or what specific resource to utilize, Dr. Sukhera advised. “Just talk to someone about it. You don’t have to carry this on your own.”
 

A version of this article appeared on Medscape.com.

When child psychiatrist Javeed Sukhera, MD, PhD, was a few years into his career, he found himself doing it all. “I was in a leadership role academically at the medical school, I had a leadership role at the hospital, and I was seeing as many patients as I could. I could work all day every day.”

“It still wouldn’t have been enough,” he said.

Whenever there was a shift available, Dr. Sukhera would take it. His job was stressful, but as a new physician with a young family, he saw this obsession with work as necessary. “I began to cope with the stress from work by doing extra work and feeling like I needed to be everywhere. It was like I became a hamster on a spinning wheel. I was just running, running, running.”

Things shifted for Dr. Sukhera when he realized that while he was emotionally available for the children who were his patients, at home, his own children weren’t getting the best of him. “There was a specific moment when I thought my son was afraid of me,” he said. “I just stopped and realized that there was something happening that I needed to break. I needed to make a change.”

Dr. Sukhera, now chair of psychiatry at the Institute of Living and chief of the Department of Psychiatry at Hartford Hospital, Hartford, Connecticut, believes what he experienced was a steep fall into work addiction. “Workaholism,” often dismissed as simply working hard, is a nonclinical addiction that could fall under the umbrella of a behavioral addiction, and healthcare professionals may be especially at risk.
 

What Does Work Addiction Look Like for Doctors?

Behavioral addictions are fairly new in the addiction space. When gambling disorder, the first and only behavioral addiction in the Diagnostic and Statistical Manual of Mental Disorders, Fifth Edition, was added in 2013, it was seen as a “breakthrough addiction,” said Mark D. Griffiths, PhD, a leading behavioral addiction researcher and a distinguished professor at Nottingham Trent University.

Because there is not enough evidence yet to classify work addiction as a formal diagnosis, there is no clear consensus on how to define it. To further complicate things, the terms “workaholism” and “work addiction” can be used interchangeably, and some experts say the two are not the same, though they can overlap.

That said, a 2018 review of literature from several countries found that work addiction “fits very well into recently postulated criteria for conceptualization of a behavioral addiction.

“If you accept that gambling can be genuinely addictive, then there’s no reason to think that something like work, exercise, or video game playing couldn’t be an addiction as well,” said Dr. Griffiths.

“The neurobiology of addiction is that we get drawn to something that gives us a dopamine hit,” Dr. Sukhera added. “But to do that all day, every day, has consequences. It drains our emotional reserves, and it can greatly impact our relationships.”

On top of that, work addiction has been linked with poor sleep, poor cardiovascular health, high blood pressure, burnout, the development of autoimmune disorders, and other health issues.

Physicians are particularly susceptible. Doctors, after all, are expected to work long hours and put their patients’ needs first, even at the expense of their own health and well-being.

“Workaholism is not just socially acceptable in medicine,” said Dr. Sukhera. “It’s baked into the system and built into the structures. The healthcare system has largely functioned on the emotional labor of health workers, whose tendency to show up and work harder can, at times, in certain organizations, be exploited.”

Dr. Griffiths agreed that with the limited amount of data available, work addiction does appear to exist at higher rates in medicine than in other fields. As early as the 1970s, medical literature describes work as a “socially acceptable” addiction among doctors. A 2014 study published in Occupational Medicine reported that of 445 physicians who took part in the research, nearly half exhibited some level of work addiction with 13% “highly work addicted.”

Of course, working hard or even meeting unreasonable demands from work is not the same as work addiction, as Dr. Griffiths clarified in a 2023 editorial in BMJ Quality & Safety. The difference, as with other behavioral addictions, is when people obsess about work and use it to cope with stress. It can be easier to stay distracted and busy to gain a sense of control rather than learning to deal with complex emotions.

A 2021 study that Dr. Sukhera conducted with resident physicians found that working harder was one of the main ways they dealt with stress during the COVID-19 pandemic. “This idea that we deal with the stress of being burnt out by doing more and more of what burns us out is fairly ubiquitous at all stages of medical professionals’ careers,” he said.

Financial incentives also can fuel work addiction, said Dr. Sukhera. In residency, there are some safeguards around overwork and duty hours. When you become an attending, those limits no longer exist. As a young physician, Dr. Sukhera had student debt to pay off and a family to support. When he found opportunities to earn more by working more, his answer was always “yes.”

Pressure to produce medical research also can pose issues. Some physicians can become addicted to publishing studies, fearing that they might lose their professional status or position if they stop. It’s a cycle that can force a doctor to not only work long hours doing their job but also practically take on a second one.
 

How Physicians Can Recognize Work Addiction in Themselves

Work addiction can look and feel different for every person, said Malissa Clark, PhD, associate professor at the University of Georgia and author of the recent book Never Not Working: Why the Always-On Culture Is Bad for Business—and How to Fix It.

Dr. Clark noted that people who are highly engaged in their work tend to be driven by intrinsic motivation: “You work because you love it.” With work addiction, “you work because you feel like you ought to be working all the time.”

Of course, it’s not always so cut and dried; you can experience both forms of motivation and not necessarily become addicted to work. But if you are solely driven by the feeling that you ought to be working all the time, that can be a red flag.

Dr. Griffiths said that while many people may have problematic work habits or work too much, true work addicts must meet six criteria that apply to all addictions:

1. Salience: Work is the single most important thing in your life, to the point of neglecting everything else. Even if you’re on vacation, your mind might be flooded with work thoughts.

2. Mood modification: You use work to modify your mood, either to get a “high” or to cope with stress.

3. Tolerance: Over time, you’ve gone from working 8 or 10 hours a day to 12 hours a day, to a point where you’re working all the time.

4. Withdrawal: On a physiological level, you will have symptoms such as anxiety, nausea, or headaches when unable to work.

5. Conflict: You feel conflicted with yourself (you know you’re working too much) or with others (partners, friends, and children) about work, but you can’t stop.

6. Relapse: If you manage to cut down your hours but can’t resist overworking 1 day, you wind up right back where you were.
 

When It’s Time to Address Work Addiction

The lack of a formal diagnosis for work addiction makes getting treatment difficult. But there are ways to seek help. Unlike the drug and alcohol literature, abstinence is not the goal. “The therapeutic goal is getting a behavior under control and looking for the triggers of why you’re compulsively working,” said Dr. Griffiths.

Practice self-compassion

Dr. Sukhera eventually realized that his work addiction stemmed from the fear of being somehow excluded or unworthy. He actively corrected much of this through self-compassion and self-kindness, which helped him set boundaries. “Self-compassion is the root of everything,” he said. “Reminding ourselves that we’re doing our best is an important ingredient in breaking the cycle.”

Slowly expose yourself to relaxation

Many workaholics find rest very difficult. “When I conducted interviews with people [who considered themselves workaholics], a very common thing I heard was, ‘I have a very hard time being idle,’ ” said Dr. Clark. If rest feels hard, Dr. Sukhera suggests practicing relaxation for 2 minutes to start. Even small periods of downtime can challenge the belief that you must be constantly productive.

Reframe your to-do list 

For work addicts, to-do lists can seem like they must be finished, which prolongs work hours. Instead, use to-do lists to help prioritize what is urgent, identify what can wait, and delegate out tasks to others, Dr. Clark recommends.

Pick up a mastery experience

Research from professor Sabine Sonnentag, Dr. rer. nat., at the University of Mannheim, Mannheim, Germany, suggests that mastery experiences — leisure activities that require thought and focus like learning a new language or taking a woodworking class — can help you actively disengage from work.

Try cognitive behavioral therapy

Widely used for other forms of addiction, cognitive behavioral therapy centers around recognizing emotions, challenging thought patterns, and changing behaviors. However, Dr. Clark admits the research on its impact on work addiction, in particular, is “pretty nascent.”

Shift your mindset

It seems logical to think that detaching from your feelings will allow you to “do more,” but experts say that idea is both untrue and dangerous. “The safest hospitals are the hospitals where people are attuned to their humanness,” said Dr. Sukhera. “It’s normal to overwork in medicine, and if you’re challenging a norm, you really have to be thoughtful about how you frame that for yourself.”

Most importantly: Seek support

Today, there is increased awareness about work addiction and more resources for physicians who are struggling, including programs such as Workaholics Anonymous or Physicians Anonymous and workplace wellness initiatives. But try not to overwhelm yourself with choosing whom to talk to or what specific resource to utilize, Dr. Sukhera advised. “Just talk to someone about it. You don’t have to carry this on your own.”
 

A version of this article appeared on Medscape.com.

When child psychiatrist Javeed Sukhera, MD, PhD, was a few years into his career, he found himself doing it all. “I was in a leadership role academically at the medical school, I had a leadership role at the hospital, and I was seeing as many patients as I could. I could work all day every day.”

“It still wouldn’t have been enough,” he said.

Whenever there was a shift available, Dr. Sukhera would take it. His job was stressful, but as a new physician with a young family, he saw this obsession with work as necessary. “I began to cope with the stress from work by doing extra work and feeling like I needed to be everywhere. It was like I became a hamster on a spinning wheel. I was just running, running, running.”

Things shifted for Dr. Sukhera when he realized that while he was emotionally available for the children who were his patients, at home, his own children weren’t getting the best of him. “There was a specific moment when I thought my son was afraid of me,” he said. “I just stopped and realized that there was something happening that I needed to break. I needed to make a change.”

Dr. Sukhera, now chair of psychiatry at the Institute of Living and chief of the Department of Psychiatry at Hartford Hospital, Hartford, Connecticut, believes what he experienced was a steep fall into work addiction. “Workaholism,” often dismissed as simply working hard, is a nonclinical addiction that could fall under the umbrella of a behavioral addiction, and healthcare professionals may be especially at risk.
 

What Does Work Addiction Look Like for Doctors?

Behavioral addictions are fairly new in the addiction space. When gambling disorder, the first and only behavioral addiction in the Diagnostic and Statistical Manual of Mental Disorders, Fifth Edition, was added in 2013, it was seen as a “breakthrough addiction,” said Mark D. Griffiths, PhD, a leading behavioral addiction researcher and a distinguished professor at Nottingham Trent University.

Because there is not enough evidence yet to classify work addiction as a formal diagnosis, there is no clear consensus on how to define it. To further complicate things, the terms “workaholism” and “work addiction” can be used interchangeably, and some experts say the two are not the same, though they can overlap.

That said, a 2018 review of literature from several countries found that work addiction “fits very well into recently postulated criteria for conceptualization of a behavioral addiction.

“If you accept that gambling can be genuinely addictive, then there’s no reason to think that something like work, exercise, or video game playing couldn’t be an addiction as well,” said Dr. Griffiths.

“The neurobiology of addiction is that we get drawn to something that gives us a dopamine hit,” Dr. Sukhera added. “But to do that all day, every day, has consequences. It drains our emotional reserves, and it can greatly impact our relationships.”

On top of that, work addiction has been linked with poor sleep, poor cardiovascular health, high blood pressure, burnout, the development of autoimmune disorders, and other health issues.

Physicians are particularly susceptible. Doctors, after all, are expected to work long hours and put their patients’ needs first, even at the expense of their own health and well-being.

“Workaholism is not just socially acceptable in medicine,” said Dr. Sukhera. “It’s baked into the system and built into the structures. The healthcare system has largely functioned on the emotional labor of health workers, whose tendency to show up and work harder can, at times, in certain organizations, be exploited.”

Dr. Griffiths agreed that with the limited amount of data available, work addiction does appear to exist at higher rates in medicine than in other fields. As early as the 1970s, medical literature describes work as a “socially acceptable” addiction among doctors. A 2014 study published in Occupational Medicine reported that of 445 physicians who took part in the research, nearly half exhibited some level of work addiction with 13% “highly work addicted.”

Of course, working hard or even meeting unreasonable demands from work is not the same as work addiction, as Dr. Griffiths clarified in a 2023 editorial in BMJ Quality & Safety. The difference, as with other behavioral addictions, is when people obsess about work and use it to cope with stress. It can be easier to stay distracted and busy to gain a sense of control rather than learning to deal with complex emotions.

A 2021 study that Dr. Sukhera conducted with resident physicians found that working harder was one of the main ways they dealt with stress during the COVID-19 pandemic. “This idea that we deal with the stress of being burnt out by doing more and more of what burns us out is fairly ubiquitous at all stages of medical professionals’ careers,” he said.

Financial incentives also can fuel work addiction, said Dr. Sukhera. In residency, there are some safeguards around overwork and duty hours. When you become an attending, those limits no longer exist. As a young physician, Dr. Sukhera had student debt to pay off and a family to support. When he found opportunities to earn more by working more, his answer was always “yes.”

Pressure to produce medical research also can pose issues. Some physicians can become addicted to publishing studies, fearing that they might lose their professional status or position if they stop. It’s a cycle that can force a doctor to not only work long hours doing their job but also practically take on a second one.
 

How Physicians Can Recognize Work Addiction in Themselves

Work addiction can look and feel different for every person, said Malissa Clark, PhD, associate professor at the University of Georgia and author of the recent book Never Not Working: Why the Always-On Culture Is Bad for Business—and How to Fix It.

Dr. Clark noted that people who are highly engaged in their work tend to be driven by intrinsic motivation: “You work because you love it.” With work addiction, “you work because you feel like you ought to be working all the time.”

Of course, it’s not always so cut and dried; you can experience both forms of motivation and not necessarily become addicted to work. But if you are solely driven by the feeling that you ought to be working all the time, that can be a red flag.

Dr. Griffiths said that while many people may have problematic work habits or work too much, true work addicts must meet six criteria that apply to all addictions:

1. Salience: Work is the single most important thing in your life, to the point of neglecting everything else. Even if you’re on vacation, your mind might be flooded with work thoughts.

2. Mood modification: You use work to modify your mood, either to get a “high” or to cope with stress.

3. Tolerance: Over time, you’ve gone from working 8 or 10 hours a day to 12 hours a day, to a point where you’re working all the time.

4. Withdrawal: On a physiological level, you will have symptoms such as anxiety, nausea, or headaches when unable to work.

5. Conflict: You feel conflicted with yourself (you know you’re working too much) or with others (partners, friends, and children) about work, but you can’t stop.

6. Relapse: If you manage to cut down your hours but can’t resist overworking 1 day, you wind up right back where you were.
 

When It’s Time to Address Work Addiction

The lack of a formal diagnosis for work addiction makes getting treatment difficult. But there are ways to seek help. Unlike the drug and alcohol literature, abstinence is not the goal. “The therapeutic goal is getting a behavior under control and looking for the triggers of why you’re compulsively working,” said Dr. Griffiths.

Practice self-compassion

Dr. Sukhera eventually realized that his work addiction stemmed from the fear of being somehow excluded or unworthy. He actively corrected much of this through self-compassion and self-kindness, which helped him set boundaries. “Self-compassion is the root of everything,” he said. “Reminding ourselves that we’re doing our best is an important ingredient in breaking the cycle.”

Slowly expose yourself to relaxation

Many workaholics find rest very difficult. “When I conducted interviews with people [who considered themselves workaholics], a very common thing I heard was, ‘I have a very hard time being idle,’ ” said Dr. Clark. If rest feels hard, Dr. Sukhera suggests practicing relaxation for 2 minutes to start. Even small periods of downtime can challenge the belief that you must be constantly productive.

Reframe your to-do list 

For work addicts, to-do lists can seem like they must be finished, which prolongs work hours. Instead, use to-do lists to help prioritize what is urgent, identify what can wait, and delegate out tasks to others, Dr. Clark recommends.

Pick up a mastery experience

Research from professor Sabine Sonnentag, Dr. rer. nat., at the University of Mannheim, Mannheim, Germany, suggests that mastery experiences — leisure activities that require thought and focus like learning a new language or taking a woodworking class — can help you actively disengage from work.

Try cognitive behavioral therapy

Widely used for other forms of addiction, cognitive behavioral therapy centers around recognizing emotions, challenging thought patterns, and changing behaviors. However, Dr. Clark admits the research on its impact on work addiction, in particular, is “pretty nascent.”

Shift your mindset

It seems logical to think that detaching from your feelings will allow you to “do more,” but experts say that idea is both untrue and dangerous. “The safest hospitals are the hospitals where people are attuned to their humanness,” said Dr. Sukhera. “It’s normal to overwork in medicine, and if you’re challenging a norm, you really have to be thoughtful about how you frame that for yourself.”

Most importantly: Seek support

Today, there is increased awareness about work addiction and more resources for physicians who are struggling, including programs such as Workaholics Anonymous or Physicians Anonymous and workplace wellness initiatives. But try not to overwhelm yourself with choosing whom to talk to or what specific resource to utilize, Dr. Sukhera advised. “Just talk to someone about it. You don’t have to carry this on your own.”
 

A version of this article appeared on Medscape.com.

TOPLINE:

A recent survey-based study found that only 4% of cancer survivors reported adhering to all four American Cancer Society (ACS) nutrition and physical activity guidelines, which include maintaining a healthy weight and diet, avoiding alcohol, and exercising regularly.

METHODOLOGY:

• The ACS has published nutrition and exercise guidelines for cancer survivors, which include recommendations to maintain a healthy weight and diet, cut out alcohol, and participate in regular physical activities. Engaging in these behaviors is associated with longer survival among cancer survivors, but whether survivors follow these nutrition and activity recommendations has not been systematically tracked.
• Researchers evaluated data on 10,020 individuals (mean age, 64.2 years) who had completed cancer treatment. Data came from the Behavioral Risk Factor Surveillance System telephone-based survey administered in 2017, 2019, and 2021, which represents 2.7 million cancer survivors.
• The researchers estimated survivors’ adherence to guidelines across four domains: Weight, physical activity, fruit and vegetable consumption, and alcohol intake. Factors associated with adherence were also evaluated.
• Overall, 9,121 survivors (91%) completed questionnaires for all four domains.

TAKEAWAY:

Only 4% of patients (365 of 9121) followed ACS guidelines in all four categories.

When assessing adherence to each category, the researchers found that 72% of cancer survivors reported engaging in recommended levels of physical activity, 68% maintained a nonobese weight, 50% said they did not consume alcohol, and 12% said they consumed recommended quantities of fruits and vegetables.

Compared with people in the general population, cancer survivors generally engaged in fewer healthy behaviors than those who had never been diagnosed with cancer.

The authors identified certain factors associated with greater guideline adherence, including female sex, older age, Black (vs White) race, and higher education level (college graduate).

IN PRACTICE:

This study highlights a potential “gap between published guidelines regarding behavioral modifications for cancer survivors and uptake of these behaviors,” the authors wrote, adding that “it is essential for oncologists and general internists to improve widespread and systematic counseling on these guidelines to improve uptake of healthy behaviors in this vulnerable patient population.”

SOURCE:

This work, led by Carter Baughman, MD, from the Division of Internal Medicine at Beth Israel Deaconess Medical Center, Boston, Massachusetts, was published online in JAMA Oncology.

LIMITATIONS:

The authors reported several study limitations, most notably that self-reported data may introduce biases.

DISCLOSURES:

The study funding source was not reported. One author received grants from the US Highbush Blueberry Council outside the submitted work. No other disclosures were reported.

A version of this article appeared on Medscape.com.

TOPLINE:

A recent survey-based study found that only 4% of cancer survivors reported adhering to all four American Cancer Society (ACS) nutrition and physical activity guidelines, which include maintaining a healthy weight and diet, avoiding alcohol, and exercising regularly.

METHODOLOGY:

• The ACS has published nutrition and exercise guidelines for cancer survivors, which include recommendations to maintain a healthy weight and diet, cut out alcohol, and participate in regular physical activities. Engaging in these behaviors is associated with longer survival among cancer survivors, but whether survivors follow these nutrition and activity recommendations has not been systematically tracked.
• Researchers evaluated data on 10,020 individuals (mean age, 64.2 years) who had completed cancer treatment. Data came from the Behavioral Risk Factor Surveillance System telephone-based survey administered in 2017, 2019, and 2021, which represents 2.7 million cancer survivors.
• The researchers estimated survivors’ adherence to guidelines across four domains: Weight, physical activity, fruit and vegetable consumption, and alcohol intake. Factors associated with adherence were also evaluated.
• Overall, 9,121 survivors (91%) completed questionnaires for all four domains.

TAKEAWAY:

Only 4% of patients (365 of 9121) followed ACS guidelines in all four categories.

When assessing adherence to each category, the researchers found that 72% of cancer survivors reported engaging in recommended levels of physical activity, 68% maintained a nonobese weight, 50% said they did not consume alcohol, and 12% said they consumed recommended quantities of fruits and vegetables.

Compared with people in the general population, cancer survivors generally engaged in fewer healthy behaviors than those who had never been diagnosed with cancer.

The authors identified certain factors associated with greater guideline adherence, including female sex, older age, Black (vs White) race, and higher education level (college graduate).

IN PRACTICE:

This study highlights a potential “gap between published guidelines regarding behavioral modifications for cancer survivors and uptake of these behaviors,” the authors wrote, adding that “it is essential for oncologists and general internists to improve widespread and systematic counseling on these guidelines to improve uptake of healthy behaviors in this vulnerable patient population.”

SOURCE:

This work, led by Carter Baughman, MD, from the Division of Internal Medicine at Beth Israel Deaconess Medical Center, Boston, Massachusetts, was published online in JAMA Oncology.

LIMITATIONS:

The authors reported several study limitations, most notably that self-reported data may introduce biases.

DISCLOSURES:

The study funding source was not reported. One author received grants from the US Highbush Blueberry Council outside the submitted work. No other disclosures were reported.

A version of this article appeared on Medscape.com.

TOPLINE:

A recent survey-based study found that only 4% of cancer survivors reported adhering to all four American Cancer Society (ACS) nutrition and physical activity guidelines, which include maintaining a healthy weight and diet, avoiding alcohol, and exercising regularly.

METHODOLOGY:

• The ACS has published nutrition and exercise guidelines for cancer survivors, which include recommendations to maintain a healthy weight and diet, cut out alcohol, and participate in regular physical activities. Engaging in these behaviors is associated with longer survival among cancer survivors, but whether survivors follow these nutrition and activity recommendations has not been systematically tracked.
• Researchers evaluated data on 10,020 individuals (mean age, 64.2 years) who had completed cancer treatment. Data came from the Behavioral Risk Factor Surveillance System telephone-based survey administered in 2017, 2019, and 2021, which represents 2.7 million cancer survivors.
• The researchers estimated survivors’ adherence to guidelines across four domains: Weight, physical activity, fruit and vegetable consumption, and alcohol intake. Factors associated with adherence were also evaluated.
• Overall, 9,121 survivors (91%) completed questionnaires for all four domains.

TAKEAWAY:

Only 4% of patients (365 of 9121) followed ACS guidelines in all four categories.

When assessing adherence to each category, the researchers found that 72% of cancer survivors reported engaging in recommended levels of physical activity, 68% maintained a nonobese weight, 50% said they did not consume alcohol, and 12% said they consumed recommended quantities of fruits and vegetables.

Compared with people in the general population, cancer survivors generally engaged in fewer healthy behaviors than those who had never been diagnosed with cancer.

The authors identified certain factors associated with greater guideline adherence, including female sex, older age, Black (vs White) race, and higher education level (college graduate).

IN PRACTICE:

This study highlights a potential “gap between published guidelines regarding behavioral modifications for cancer survivors and uptake of these behaviors,” the authors wrote, adding that “it is essential for oncologists and general internists to improve widespread and systematic counseling on these guidelines to improve uptake of healthy behaviors in this vulnerable patient population.”

SOURCE:

This work, led by Carter Baughman, MD, from the Division of Internal Medicine at Beth Israel Deaconess Medical Center, Boston, Massachusetts, was published online in JAMA Oncology.

LIMITATIONS:

The authors reported several study limitations, most notably that self-reported data may introduce biases.

DISCLOSURES:

The study funding source was not reported. One author received grants from the US Highbush Blueberry Council outside the submitted work. No other disclosures were reported.

A version of this article appeared on Medscape.com.

On April 4, Oregon’s Governor Tina Kotek signed a bill into law that officially changed the title of “physician assistants” to “physician associates” in the state. The switch is the first of its kind in the United States and comes on the heels of a decision from 2021 by the American Academy of Physician Associates (AAPA) to change the meaning of “PA” to “physician associate” from “physician assistant.”

In the Medscape Physician Assistant Career Satisfaction Report 2023, a diverse range of opinions on the title switch was reflected. Only 40% of PAs favored the name change at the time, 45% neither opposed nor favored it, and 15% opposed the name change, reflecting the complexity of the issue.

According to the AAPA, the change came about to better reflect the work PAs do in not just “assisting” physicians but in working independently with patients. Some also felt that the word “assistant” implies dependence. However, despite associate’s more accurate reflection of the job, PAs mostly remain split on whether they want the new moniker.

Many say that the name change will be confusing for the public and their patients, while others say that physician assistant was already not well understood, as patients often thought of the profession as a doctor’s helper or an assistant, like a medical assistant.

Yet many long-time PAs say that they prefer the title they’ve always had and that explaining to patients the new associate title will be equally confusing. Some mentioned patients may think they’re a business associate of the physician.

Oregon PAs won’t immediately switch to the new name. The new law takes effect on June 6, 2024. The Oregon Medical Board will establish regulations and guidance before PAs adopt the new name in their practices.

The law only changes the name of PAs in Oregon, not in other states. In fact, prematurely using the title of physician associate could subject a PA to regulatory challenges or disciplinary actions.

A version of this article appeared on Medscape.com.

On April 4, Oregon’s Governor Tina Kotek signed a bill into law that officially changed the title of “physician assistants” to “physician associates” in the state. The switch is the first of its kind in the United States and comes on the heels of a decision from 2021 by the American Academy of Physician Associates (AAPA) to change the meaning of “PA” to “physician associate” from “physician assistant.”

In the Medscape Physician Assistant Career Satisfaction Report 2023, a diverse range of opinions on the title switch was reflected. Only 40% of PAs favored the name change at the time, 45% neither opposed nor favored it, and 15% opposed the name change, reflecting the complexity of the issue.

According to the AAPA, the change came about to better reflect the work PAs do in not just “assisting” physicians but in working independently with patients. Some also felt that the word “assistant” implies dependence. However, despite associate’s more accurate reflection of the job, PAs mostly remain split on whether they want the new moniker.

Many say that the name change will be confusing for the public and their patients, while others say that physician assistant was already not well understood, as patients often thought of the profession as a doctor’s helper or an assistant, like a medical assistant.

Yet many long-time PAs say that they prefer the title they’ve always had and that explaining to patients the new associate title will be equally confusing. Some mentioned patients may think they’re a business associate of the physician.

Oregon PAs won’t immediately switch to the new name. The new law takes effect on June 6, 2024. The Oregon Medical Board will establish regulations and guidance before PAs adopt the new name in their practices.

The law only changes the name of PAs in Oregon, not in other states. In fact, prematurely using the title of physician associate could subject a PA to regulatory challenges or disciplinary actions.

A version of this article appeared on Medscape.com.

On April 4, Oregon’s Governor Tina Kotek signed a bill into law that officially changed the title of “physician assistants” to “physician associates” in the state. The switch is the first of its kind in the United States and comes on the heels of a decision from 2021 by the American Academy of Physician Associates (AAPA) to change the meaning of “PA” to “physician associate” from “physician assistant.”

In the Medscape Physician Assistant Career Satisfaction Report 2023, a diverse range of opinions on the title switch was reflected. Only 40% of PAs favored the name change at the time, 45% neither opposed nor favored it, and 15% opposed the name change, reflecting the complexity of the issue.

According to the AAPA, the change came about to better reflect the work PAs do in not just “assisting” physicians but in working independently with patients. Some also felt that the word “assistant” implies dependence. However, despite associate’s more accurate reflection of the job, PAs mostly remain split on whether they want the new moniker.

Many say that the name change will be confusing for the public and their patients, while others say that physician assistant was already not well understood, as patients often thought of the profession as a doctor’s helper or an assistant, like a medical assistant.

Yet many long-time PAs say that they prefer the title they’ve always had and that explaining to patients the new associate title will be equally confusing. Some mentioned patients may think they’re a business associate of the physician.

Oregon PAs won’t immediately switch to the new name. The new law takes effect on June 6, 2024. The Oregon Medical Board will establish regulations and guidance before PAs adopt the new name in their practices.

The law only changes the name of PAs in Oregon, not in other states. In fact, prematurely using the title of physician associate could subject a PA to regulatory challenges or disciplinary actions.

A version of this article appeared on Medscape.com.

As the pendulum has swung against recommending aspirin for the primary prevention of heart attacks and strokes, clinicians should focus on other ways to help patients avoid cardiovascular events.

A landmark study published in 1988 in The New England Journal of Medicine reported an astonishing 44% drop in the number of heart attacks among US male physicians aged 40-84 years who took aspirin.

Aspirin subsequently became a daily habit for millions of Americans. In 2017, nearly a quarter of Americans over age 40 who did not have cardiovascular disease (CVD) took the drug, and over 20% of those were doing so without a physician’s recommendation.

But in 2018, three studies (ASCEND, ARRIVE, and ASPREE) showed a stunning reversal in the purported benefit, according to John Wong, MD, vice-chair of the US Preventive Services Task Force (USPSTF).

The calculus for taking aspirin appeared to have changed dramatically: The drug decreased the risk for myocardial infarction by only 11% among study subjects, while its potential harms were much more pronounced.

According to Dr. Wong, who is also a professor of medicine and a primary care physician at Tufts University School of Medicine in Boston, Massachusetts, patients taking low-dose aspirin had a 58% increase in their risk for gastrointestinal bleeding compared with those not on aspirin, as well as a 31% increased risk for intracranial bleeding.

Did aspirin suddenly lose its magic powers in preventing heart attacks? Dr. Wong attributed the decline in effectiveness of aspirin in preventing heart attacks to other “primary care interventions that help reduce the cardiovascular disease risk in patients who haven’t had a heart attack or stroke.”

Fewer Americans smoke cigarettes, more realize the benefits of a healthy diet and physical activity, and the medical community better recognizes and treats hypertension. New classes of medications such as statins for high cholesterol are also moving the needle.

But a newer class of drugs may provide a safer replacement for aspirin, according to Muhammad Maqsood, MD, a cardiology fellow at DeBakey Heart and Vascular Center at Methodist Hospital in Houston, Texas. P2Y purinoceptor 12 (P2Y12) inhibitors are effective in lowering the risk for heart attack and stroke in patients with acute coronary syndrome or those undergoing elective percutaneous coronary interventions.

“They have shown a better bleeding profile, especially clopidogrel compared to aspirin,” Dr. Maqsood said.

However, the findings come from trials of patients who already had CVD, so results cannot yet be extrapolated to primary prevention. Dr. Maqsood said the gap highlights the need for clinical trials that evaluate P2Y12 inhibitors for primary prevention, but no such study is registered on clinicaltrials.gov.
 

Benefits Persist for Some Patients

The new evidence led the USPSTF to publish new guidelines in 2022, downgrading the recommendation for low-dose aspirin use for primary prevention. Previously, the organization stated that clinicians “should” initiate daily low-dose aspirin in adults aged 50-59 years and “consider” its use in adults aged 60-69 years whose 10-year risk for CVD was higher than 10%.

The updated guidelines stated that the decision to initiate low-dose aspirin in adults aged 40-59 years with a greater than 10% risk for CVD “should be an individual one,” based on professional judgment and individual patient preferences. The USPSTF also recommended against the use of aspirin in anyone over the age of 60.

Meanwhile, the American College of Cardiology and American Heart Association also dialed down previously strong recommendations on low-dose aspirin to a more nuanced recommendation stating, “low-dose aspirin might be considered for primary prevention of ASCVD among select adults 40-70 years of age.”

With a varying age limit for recommending aspirin, clinicians may take into consideration several variables.

“Is there a magic age? I don’t think there is,” said Douglas Lloyd-Jones, the former president of the American Heart Association and current chair of the Department of Preventive Medicine and a practicing cardiologist at Northwestern University Feinberg School of Medicine in Chicago, Illinois.

For a patient over age 60 who is at a high risk for adverse cardiovascular outcomes, is unable to quit smoking, and is not likely to experience problematic bleeding, a clinician might recommend aspirin, Dr. Lloyd-Jones said. He said he sometimes also assesses coronary artery calcium to guide his clinical decisions: If elevated (an Agatston score above 100), he might recommend low-dose aspirin.

Dr. Lloyd-Jones also reiterated that patients should continue taking low-dose aspirin if they have already experienced a heart attack, stroke, episode of atrial fibrillation, or required a vascular stent.

Unless a patient with established CVD has intractable bleeding, “the aspirin is really for life,” Dr. Lloyd-Jones said. Patients who have a stent or who are at high risk for recurrence of stroke are more likely to experience thrombosis, and aspirin can decrease the risk.

“In our cardiology community, we don’t just strictly use the age of 70; the decision is always individualized,” Dr. Maqsood said.

Dr. Wong said primary care providers should focus on the USPSTF’s other recommendations that address CVD (Table), such as smoking cessation and screening for hypertension.

“I think our challenge is that we have so many of those A and B recommendations,” Dr. Wong said. “And I think part of the challenge for us is working with the patient to find out what’s most important to them.”

Discussing heart attacks and strokes often will strike a chord with patients because someone they know has been affected.

Dr. Maqsood emphasized the importance of behavioral interventions, such as helping patients decrease their body mass index and control their hyperlipidemia.

“The behavioral interventions are those which are the most cost-effective without any side effects,” he said.

His other piece of advice is to inquire with younger patients about a family history of heart attacks. Familial hypercholesteremia is unlikely to be controlled by diet and exercise and will need medical therapy.

Dr. Lloyd-Jones described the discussions he has with patients about preventing heart attacks as “the most important conversations we can have: Remember that cardiovascular disease is still the leading cause of death and disability in the world and in the United States.”

Dr. Wong, Dr. Lloyd-Jones, and Dr. Maqsood reported no relevant financial relationships.

A version of this article appeared on Medscape.com.

As the pendulum has swung against recommending aspirin for the primary prevention of heart attacks and strokes, clinicians should focus on other ways to help patients avoid cardiovascular events.

A landmark study published in 1988 in The New England Journal of Medicine reported an astonishing 44% drop in the number of heart attacks among US male physicians aged 40-84 years who took aspirin.

Aspirin subsequently became a daily habit for millions of Americans. In 2017, nearly a quarter of Americans over age 40 who did not have cardiovascular disease (CVD) took the drug, and over 20% of those were doing so without a physician’s recommendation.

But in 2018, three studies (ASCEND, ARRIVE, and ASPREE) showed a stunning reversal in the purported benefit, according to John Wong, MD, vice-chair of the US Preventive Services Task Force (USPSTF).

The calculus for taking aspirin appeared to have changed dramatically: The drug decreased the risk for myocardial infarction by only 11% among study subjects, while its potential harms were much more pronounced.

According to Dr. Wong, who is also a professor of medicine and a primary care physician at Tufts University School of Medicine in Boston, Massachusetts, patients taking low-dose aspirin had a 58% increase in their risk for gastrointestinal bleeding compared with those not on aspirin, as well as a 31% increased risk for intracranial bleeding.

Did aspirin suddenly lose its magic powers in preventing heart attacks? Dr. Wong attributed the decline in effectiveness of aspirin in preventing heart attacks to other “primary care interventions that help reduce the cardiovascular disease risk in patients who haven’t had a heart attack or stroke.”

Fewer Americans smoke cigarettes, more realize the benefits of a healthy diet and physical activity, and the medical community better recognizes and treats hypertension. New classes of medications such as statins for high cholesterol are also moving the needle.

But a newer class of drugs may provide a safer replacement for aspirin, according to Muhammad Maqsood, MD, a cardiology fellow at DeBakey Heart and Vascular Center at Methodist Hospital in Houston, Texas. P2Y purinoceptor 12 (P2Y12) inhibitors are effective in lowering the risk for heart attack and stroke in patients with acute coronary syndrome or those undergoing elective percutaneous coronary interventions.

“They have shown a better bleeding profile, especially clopidogrel compared to aspirin,” Dr. Maqsood said.

However, the findings come from trials of patients who already had CVD, so results cannot yet be extrapolated to primary prevention. Dr. Maqsood said the gap highlights the need for clinical trials that evaluate P2Y12 inhibitors for primary prevention, but no such study is registered on clinicaltrials.gov.
 

Benefits Persist for Some Patients

The new evidence led the USPSTF to publish new guidelines in 2022, downgrading the recommendation for low-dose aspirin use for primary prevention. Previously, the organization stated that clinicians “should” initiate daily low-dose aspirin in adults aged 50-59 years and “consider” its use in adults aged 60-69 years whose 10-year risk for CVD was higher than 10%.

The updated guidelines stated that the decision to initiate low-dose aspirin in adults aged 40-59 years with a greater than 10% risk for CVD “should be an individual one,” based on professional judgment and individual patient preferences. The USPSTF also recommended against the use of aspirin in anyone over the age of 60.

Meanwhile, the American College of Cardiology and American Heart Association also dialed down previously strong recommendations on low-dose aspirin to a more nuanced recommendation stating, “low-dose aspirin might be considered for primary prevention of ASCVD among select adults 40-70 years of age.”

With a varying age limit for recommending aspirin, clinicians may take into consideration several variables.

“Is there a magic age? I don’t think there is,” said Douglas Lloyd-Jones, the former president of the American Heart Association and current chair of the Department of Preventive Medicine and a practicing cardiologist at Northwestern University Feinberg School of Medicine in Chicago, Illinois.

For a patient over age 60 who is at a high risk for adverse cardiovascular outcomes, is unable to quit smoking, and is not likely to experience problematic bleeding, a clinician might recommend aspirin, Dr. Lloyd-Jones said. He said he sometimes also assesses coronary artery calcium to guide his clinical decisions: If elevated (an Agatston score above 100), he might recommend low-dose aspirin.

Dr. Lloyd-Jones also reiterated that patients should continue taking low-dose aspirin if they have already experienced a heart attack, stroke, episode of atrial fibrillation, or required a vascular stent.

Unless a patient with established CVD has intractable bleeding, “the aspirin is really for life,” Dr. Lloyd-Jones said. Patients who have a stent or who are at high risk for recurrence of stroke are more likely to experience thrombosis, and aspirin can decrease the risk.

“In our cardiology community, we don’t just strictly use the age of 70; the decision is always individualized,” Dr. Maqsood said.

Dr. Wong said primary care providers should focus on the USPSTF’s other recommendations that address CVD (Table), such as smoking cessation and screening for hypertension.

“I think our challenge is that we have so many of those A and B recommendations,” Dr. Wong said. “And I think part of the challenge for us is working with the patient to find out what’s most important to them.”

Discussing heart attacks and strokes often will strike a chord with patients because someone they know has been affected.

Dr. Maqsood emphasized the importance of behavioral interventions, such as helping patients decrease their body mass index and control their hyperlipidemia.

“The behavioral interventions are those which are the most cost-effective without any side effects,” he said.

His other piece of advice is to inquire with younger patients about a family history of heart attacks. Familial hypercholesteremia is unlikely to be controlled by diet and exercise and will need medical therapy.

Dr. Lloyd-Jones described the discussions he has with patients about preventing heart attacks as “the most important conversations we can have: Remember that cardiovascular disease is still the leading cause of death and disability in the world and in the United States.”

Dr. Wong, Dr. Lloyd-Jones, and Dr. Maqsood reported no relevant financial relationships.

A version of this article appeared on Medscape.com.

As the pendulum has swung against recommending aspirin for the primary prevention of heart attacks and strokes, clinicians should focus on other ways to help patients avoid cardiovascular events.

A landmark study published in 1988 in The New England Journal of Medicine reported an astonishing 44% drop in the number of heart attacks among US male physicians aged 40-84 years who took aspirin.

Aspirin subsequently became a daily habit for millions of Americans. In 2017, nearly a quarter of Americans over age 40 who did not have cardiovascular disease (CVD) took the drug, and over 20% of those were doing so without a physician’s recommendation.

But in 2018, three studies (ASCEND, ARRIVE, and ASPREE) showed a stunning reversal in the purported benefit, according to John Wong, MD, vice-chair of the US Preventive Services Task Force (USPSTF).

The calculus for taking aspirin appeared to have changed dramatically: The drug decreased the risk for myocardial infarction by only 11% among study subjects, while its potential harms were much more pronounced.

According to Dr. Wong, who is also a professor of medicine and a primary care physician at Tufts University School of Medicine in Boston, Massachusetts, patients taking low-dose aspirin had a 58% increase in their risk for gastrointestinal bleeding compared with those not on aspirin, as well as a 31% increased risk for intracranial bleeding.

Did aspirin suddenly lose its magic powers in preventing heart attacks? Dr. Wong attributed the decline in effectiveness of aspirin in preventing heart attacks to other “primary care interventions that help reduce the cardiovascular disease risk in patients who haven’t had a heart attack or stroke.”

Fewer Americans smoke cigarettes, more realize the benefits of a healthy diet and physical activity, and the medical community better recognizes and treats hypertension. New classes of medications such as statins for high cholesterol are also moving the needle.

But a newer class of drugs may provide a safer replacement for aspirin, according to Muhammad Maqsood, MD, a cardiology fellow at DeBakey Heart and Vascular Center at Methodist Hospital in Houston, Texas. P2Y purinoceptor 12 (P2Y12) inhibitors are effective in lowering the risk for heart attack and stroke in patients with acute coronary syndrome or those undergoing elective percutaneous coronary interventions.

“They have shown a better bleeding profile, especially clopidogrel compared to aspirin,” Dr. Maqsood said.

However, the findings come from trials of patients who already had CVD, so results cannot yet be extrapolated to primary prevention. Dr. Maqsood said the gap highlights the need for clinical trials that evaluate P2Y12 inhibitors for primary prevention, but no such study is registered on clinicaltrials.gov.
 

Benefits Persist for Some Patients

The new evidence led the USPSTF to publish new guidelines in 2022, downgrading the recommendation for low-dose aspirin use for primary prevention. Previously, the organization stated that clinicians “should” initiate daily low-dose aspirin in adults aged 50-59 years and “consider” its use in adults aged 60-69 years whose 10-year risk for CVD was higher than 10%.

The updated guidelines stated that the decision to initiate low-dose aspirin in adults aged 40-59 years with a greater than 10% risk for CVD “should be an individual one,” based on professional judgment and individual patient preferences. The USPSTF also recommended against the use of aspirin in anyone over the age of 60.

Meanwhile, the American College of Cardiology and American Heart Association also dialed down previously strong recommendations on low-dose aspirin to a more nuanced recommendation stating, “low-dose aspirin might be considered for primary prevention of ASCVD among select adults 40-70 years of age.”

With a varying age limit for recommending aspirin, clinicians may take into consideration several variables.

“Is there a magic age? I don’t think there is,” said Douglas Lloyd-Jones, the former president of the American Heart Association and current chair of the Department of Preventive Medicine and a practicing cardiologist at Northwestern University Feinberg School of Medicine in Chicago, Illinois.

For a patient over age 60 who is at a high risk for adverse cardiovascular outcomes, is unable to quit smoking, and is not likely to experience problematic bleeding, a clinician might recommend aspirin, Dr. Lloyd-Jones said. He said he sometimes also assesses coronary artery calcium to guide his clinical decisions: If elevated (an Agatston score above 100), he might recommend low-dose aspirin.

Dr. Lloyd-Jones also reiterated that patients should continue taking low-dose aspirin if they have already experienced a heart attack, stroke, episode of atrial fibrillation, or required a vascular stent.

Unless a patient with established CVD has intractable bleeding, “the aspirin is really for life,” Dr. Lloyd-Jones said. Patients who have a stent or who are at high risk for recurrence of stroke are more likely to experience thrombosis, and aspirin can decrease the risk.

“In our cardiology community, we don’t just strictly use the age of 70; the decision is always individualized,” Dr. Maqsood said.

Dr. Wong said primary care providers should focus on the USPSTF’s other recommendations that address CVD (Table), such as smoking cessation and screening for hypertension.

“I think our challenge is that we have so many of those A and B recommendations,” Dr. Wong said. “And I think part of the challenge for us is working with the patient to find out what’s most important to them.”

Discussing heart attacks and strokes often will strike a chord with patients because someone they know has been affected.

Dr. Maqsood emphasized the importance of behavioral interventions, such as helping patients decrease their body mass index and control their hyperlipidemia.

“The behavioral interventions are those which are the most cost-effective without any side effects,” he said.

His other piece of advice is to inquire with younger patients about a family history of heart attacks. Familial hypercholesteremia is unlikely to be controlled by diet and exercise and will need medical therapy.

Dr. Lloyd-Jones described the discussions he has with patients about preventing heart attacks as “the most important conversations we can have: Remember that cardiovascular disease is still the leading cause of death and disability in the world and in the United States.”

Dr. Wong, Dr. Lloyd-Jones, and Dr. Maqsood reported no relevant financial relationships.

A version of this article appeared on Medscape.com.

TOPLINE:

Decreased total sleep time (TST) and increased resting heart rate (RHR), heart rate variability (HRV), and average nightly respiratory rate (ARR) as measured by a multisensor device worn during sleep accurately correlated with self-reported stress levels in college students, a new study suggests. Investigators say the findings support the potential utility of wearable devices to collect data that identify young adults at greatest risk for stress. 

METHODOLOGY:

• First-semester college students (n = 525; aged 18-24 years) enrolled in the Lived Experiences measured Using Rings Study (LEMURS) provided continuous biometric data via a wearable device (Oura Ring; Oura Health) and answered weekly surveys regarding stress levels.
• The researchers used mixed-effects regression models to identify associations between perceived stress scores and average nightly TST, RHR, HRV, and ARR.

TAKEAWAY:

• Consistent associations were found between perceived stress scores and TST, RHR, HRV, and ARR, which persisted even after controlling for gender and week of the semester.
• Risk for moderate to high stress decreased by 38% with every additional hour of TST (P < .01) and by 1.2% with each millisecond increase in HRV (P < .05).
• Moderate to high stress risk increased by 3.6% with each beat-per-minute-increase in RHR (P < .01) and by 23% with each additional breath-per-minute increase in ARR (P < .01).
• Participants who identified as female, nonbinary, or transgender reported significantly higher stress throughout the study.

IN PRACTICE:

“The present work highlights the potential utility of monitoring sleep, suggesting that these measures may identify within individual changes that are concerning for stress. As the demand for mental health services grows, determining which wearable-derived sleep estimates provide information about well-being and can predict worsening mental health in young adults is an important area of study,” study authors wrote.

SOURCE:

The study, led by Laura S.P. Bloomfield, University of Vermont, Burlington, Vermont, was published online in PLOS Digital Health.

LIMITATIONS:

The study focused on raw sleep measures; the researchers suggest that future studies evaluate additional sleep variables (eg, daytime naps), which have been associated with mental health in college students. In addition, the researchers did not have stress or sleep data before participants started college, so they could not assess the impact of starting college on participants’ sleep.

DISCLOSURES:

Bloomfield was supported by the Gund Fellowship and received a partial salary from the Mass Mutual Insurance Wellness Initiative. Other authors’ funding is reported in the original article.

A version of this article appeared on Medscape.com.

TOPLINE:

Decreased total sleep time (TST) and increased resting heart rate (RHR), heart rate variability (HRV), and average nightly respiratory rate (ARR) as measured by a multisensor device worn during sleep accurately correlated with self-reported stress levels in college students, a new study suggests. Investigators say the findings support the potential utility of wearable devices to collect data that identify young adults at greatest risk for stress. 

METHODOLOGY:

• First-semester college students (n = 525; aged 18-24 years) enrolled in the Lived Experiences measured Using Rings Study (LEMURS) provided continuous biometric data via a wearable device (Oura Ring; Oura Health) and answered weekly surveys regarding stress levels.
• The researchers used mixed-effects regression models to identify associations between perceived stress scores and average nightly TST, RHR, HRV, and ARR.

TAKEAWAY:

• Consistent associations were found between perceived stress scores and TST, RHR, HRV, and ARR, which persisted even after controlling for gender and week of the semester.
• Risk for moderate to high stress decreased by 38% with every additional hour of TST (P < .01) and by 1.2% with each millisecond increase in HRV (P < .05).
• Moderate to high stress risk increased by 3.6% with each beat-per-minute-increase in RHR (P < .01) and by 23% with each additional breath-per-minute increase in ARR (P < .01).
• Participants who identified as female, nonbinary, or transgender reported significantly higher stress throughout the study.

IN PRACTICE:

“The present work highlights the potential utility of monitoring sleep, suggesting that these measures may identify within individual changes that are concerning for stress. As the demand for mental health services grows, determining which wearable-derived sleep estimates provide information about well-being and can predict worsening mental health in young adults is an important area of study,” study authors wrote.

SOURCE:

The study, led by Laura S.P. Bloomfield, University of Vermont, Burlington, Vermont, was published online in PLOS Digital Health.

LIMITATIONS:

The study focused on raw sleep measures; the researchers suggest that future studies evaluate additional sleep variables (eg, daytime naps), which have been associated with mental health in college students. In addition, the researchers did not have stress or sleep data before participants started college, so they could not assess the impact of starting college on participants’ sleep.

DISCLOSURES:

Bloomfield was supported by the Gund Fellowship and received a partial salary from the Mass Mutual Insurance Wellness Initiative. Other authors’ funding is reported in the original article.

A version of this article appeared on Medscape.com.

TOPLINE:

Decreased total sleep time (TST) and increased resting heart rate (RHR), heart rate variability (HRV), and average nightly respiratory rate (ARR) as measured by a multisensor device worn during sleep accurately correlated with self-reported stress levels in college students, a new study suggests. Investigators say the findings support the potential utility of wearable devices to collect data that identify young adults at greatest risk for stress. 

METHODOLOGY:

• First-semester college students (n = 525; aged 18-24 years) enrolled in the Lived Experiences measured Using Rings Study (LEMURS) provided continuous biometric data via a wearable device (Oura Ring; Oura Health) and answered weekly surveys regarding stress levels.
• The researchers used mixed-effects regression models to identify associations between perceived stress scores and average nightly TST, RHR, HRV, and ARR.

TAKEAWAY:

• Consistent associations were found between perceived stress scores and TST, RHR, HRV, and ARR, which persisted even after controlling for gender and week of the semester.
• Risk for moderate to high stress decreased by 38% with every additional hour of TST (P < .01) and by 1.2% with each millisecond increase in HRV (P < .05).
• Moderate to high stress risk increased by 3.6% with each beat-per-minute-increase in RHR (P < .01) and by 23% with each additional breath-per-minute increase in ARR (P < .01).
• Participants who identified as female, nonbinary, or transgender reported significantly higher stress throughout the study.

IN PRACTICE:

“The present work highlights the potential utility of monitoring sleep, suggesting that these measures may identify within individual changes that are concerning for stress. As the demand for mental health services grows, determining which wearable-derived sleep estimates provide information about well-being and can predict worsening mental health in young adults is an important area of study,” study authors wrote.

SOURCE:

The study, led by Laura S.P. Bloomfield, University of Vermont, Burlington, Vermont, was published online in PLOS Digital Health.

LIMITATIONS:

The study focused on raw sleep measures; the researchers suggest that future studies evaluate additional sleep variables (eg, daytime naps), which have been associated with mental health in college students. In addition, the researchers did not have stress or sleep data before participants started college, so they could not assess the impact of starting college on participants’ sleep.

DISCLOSURES:

Bloomfield was supported by the Gund Fellowship and received a partial salary from the Mass Mutual Insurance Wellness Initiative. Other authors’ funding is reported in the original article.

A version of this article appeared on Medscape.com.

TOPLINE:

Moderate to vigorous aerobic physical activity performed in the evening is associated with the lowest risk for mortality, cardiovascular disease (CVD), and microvascular disease (MVD) in adults with obesity, including those with type 2 diabetes (T2D).

METHODOLOGY:

• Bouts of moderate to vigorous aerobic physical activity are widely recognized to improve cardiometabolic risk factors, but whether morning, afternoon, or evening timing may lead to greater improvements is unclear.
• Researchers analyzed UK Biobank data of 29,836 participants with obesity (body mass index, › 30; mean age, 62.2 years; 53.2% women), including 2995 also diagnosed with T2D, all enrolled in 2006-2010.
• Aerobic activity was defined as bouts lasting ≥ 3 minutes, and the intensity of activity was classified as light, moderate, or vigorous using accelerometer data collected from participants.
• Participants were stratified into the morning (6 a.m. to < 12 p.m.), afternoon (12 p.m. to < 6 p.m.), and evening (6 p.m. to < 12 a.m.) groups based on when > 50% of their total moderate to vigorous activity occurred, and those with no aerobic bouts were considered the reference group.
• The association between the timing of aerobic physical activity and risk for all-cause mortality, CVD (defined as circulatory, such as hypertension), and MVD (neuropathy, nephropathy, or retinopathy) was evaluated over a median follow-up of 7.9 years.

TAKEAWAY:

• Mortality risk was lowest in the evening moderate to vigorous physical activity group (hazard ratio [HR], 0.39; 95% CI, 0.27-0.55) and even lower in the T2D subgroup (HR, 0.24; 95% CI, 0.08-0.76) than in the reference group.
• Mortality risk was lower in the afternoon (HR, 0.60; 95% CI, 0.51-0.71) and morning (HR, 0.67; 95% CI, 0.56-0.79) activity groups than in the reference group, but this association was weaker than that observed in the evening activity group.
• The evening moderate to vigorous activity group had a lower risk for CVD (HR, 0.64; 95% CI, 0.54-0.75) and MVD (HR, 0.76; 95% CI, 0.63-0.92) than the reference group.
• Among participants with obesity and T2D, moderate to vigorous physical activity in the evening was associated with a lower risk for mortality, CVD, and MVD.

IN PRACTICE:

The authors wrote, “The results of this study emphasize that beyond the total volume of MVPA [moderate to vigorous physical activity], its timing, particularly in the evening, was consistently associated with the lowest risk of mortality relative to other timing windows.”

SOURCE:

The study, led by Angelo Sabag, PhD, Charles Perkins Centre, University of Sydney, Australia, was published online in Diabetes Care.

LIMITATIONS:

Because this was an observational study, the possibility of reverse causation from prodromal disease and unaccounted confounding factors could not have been ruled out. There was a lag of a median of 5.5 years between the UK Biobank baseline, when covariate measurements were taken, and the accelerometry study. Moreover, the response rate of the UK Biobank was low.

DISCLOSURES:

The study was funded by an Australian National Health and Medical Research Council Investigator Grant and the National Heart Foundation of Australia Postdoctoral Fellowship. The authors reported no conflicts of interest.

A version of this article appeared on Medscape.com.

TOPLINE:

Moderate to vigorous aerobic physical activity performed in the evening is associated with the lowest risk for mortality, cardiovascular disease (CVD), and microvascular disease (MVD) in adults with obesity, including those with type 2 diabetes (T2D).

METHODOLOGY:

• Bouts of moderate to vigorous aerobic physical activity are widely recognized to improve cardiometabolic risk factors, but whether morning, afternoon, or evening timing may lead to greater improvements is unclear.
• Researchers analyzed UK Biobank data of 29,836 participants with obesity (body mass index, › 30; mean age, 62.2 years; 53.2% women), including 2995 also diagnosed with T2D, all enrolled in 2006-2010.
• Aerobic activity was defined as bouts lasting ≥ 3 minutes, and the intensity of activity was classified as light, moderate, or vigorous using accelerometer data collected from participants.
• Participants were stratified into the morning (6 a.m. to < 12 p.m.), afternoon (12 p.m. to < 6 p.m.), and evening (6 p.m. to < 12 a.m.) groups based on when > 50% of their total moderate to vigorous activity occurred, and those with no aerobic bouts were considered the reference group.
• The association between the timing of aerobic physical activity and risk for all-cause mortality, CVD (defined as circulatory, such as hypertension), and MVD (neuropathy, nephropathy, or retinopathy) was evaluated over a median follow-up of 7.9 years.

TAKEAWAY:

• Mortality risk was lowest in the evening moderate to vigorous physical activity group (hazard ratio [HR], 0.39; 95% CI, 0.27-0.55) and even lower in the T2D subgroup (HR, 0.24; 95% CI, 0.08-0.76) than in the reference group.
• Mortality risk was lower in the afternoon (HR, 0.60; 95% CI, 0.51-0.71) and morning (HR, 0.67; 95% CI, 0.56-0.79) activity groups than in the reference group, but this association was weaker than that observed in the evening activity group.
• The evening moderate to vigorous activity group had a lower risk for CVD (HR, 0.64; 95% CI, 0.54-0.75) and MVD (HR, 0.76; 95% CI, 0.63-0.92) than the reference group.
• Among participants with obesity and T2D, moderate to vigorous physical activity in the evening was associated with a lower risk for mortality, CVD, and MVD.

IN PRACTICE:

The authors wrote, “The results of this study emphasize that beyond the total volume of MVPA [moderate to vigorous physical activity], its timing, particularly in the evening, was consistently associated with the lowest risk of mortality relative to other timing windows.”

SOURCE:

The study, led by Angelo Sabag, PhD, Charles Perkins Centre, University of Sydney, Australia, was published online in Diabetes Care.

LIMITATIONS:

Because this was an observational study, the possibility of reverse causation from prodromal disease and unaccounted confounding factors could not have been ruled out. There was a lag of a median of 5.5 years between the UK Biobank baseline, when covariate measurements were taken, and the accelerometry study. Moreover, the response rate of the UK Biobank was low.

DISCLOSURES:

The study was funded by an Australian National Health and Medical Research Council Investigator Grant and the National Heart Foundation of Australia Postdoctoral Fellowship. The authors reported no conflicts of interest.

A version of this article appeared on Medscape.com.

TOPLINE:

Moderate to vigorous aerobic physical activity performed in the evening is associated with the lowest risk for mortality, cardiovascular disease (CVD), and microvascular disease (MVD) in adults with obesity, including those with type 2 diabetes (T2D).

METHODOLOGY:

• Bouts of moderate to vigorous aerobic physical activity are widely recognized to improve cardiometabolic risk factors, but whether morning, afternoon, or evening timing may lead to greater improvements is unclear.
• Researchers analyzed UK Biobank data of 29,836 participants with obesity (body mass index, › 30; mean age, 62.2 years; 53.2% women), including 2995 also diagnosed with T2D, all enrolled in 2006-2010.
• Aerobic activity was defined as bouts lasting ≥ 3 minutes, and the intensity of activity was classified as light, moderate, or vigorous using accelerometer data collected from participants.
• Participants were stratified into the morning (6 a.m. to < 12 p.m.), afternoon (12 p.m. to < 6 p.m.), and evening (6 p.m. to < 12 a.m.) groups based on when > 50% of their total moderate to vigorous activity occurred, and those with no aerobic bouts were considered the reference group.
• The association between the timing of aerobic physical activity and risk for all-cause mortality, CVD (defined as circulatory, such as hypertension), and MVD (neuropathy, nephropathy, or retinopathy) was evaluated over a median follow-up of 7.9 years.

TAKEAWAY:

• Mortality risk was lowest in the evening moderate to vigorous physical activity group (hazard ratio [HR], 0.39; 95% CI, 0.27-0.55) and even lower in the T2D subgroup (HR, 0.24; 95% CI, 0.08-0.76) than in the reference group.
• Mortality risk was lower in the afternoon (HR, 0.60; 95% CI, 0.51-0.71) and morning (HR, 0.67; 95% CI, 0.56-0.79) activity groups than in the reference group, but this association was weaker than that observed in the evening activity group.
• The evening moderate to vigorous activity group had a lower risk for CVD (HR, 0.64; 95% CI, 0.54-0.75) and MVD (HR, 0.76; 95% CI, 0.63-0.92) than the reference group.
• Among participants with obesity and T2D, moderate to vigorous physical activity in the evening was associated with a lower risk for mortality, CVD, and MVD.

IN PRACTICE:

The authors wrote, “The results of this study emphasize that beyond the total volume of MVPA [moderate to vigorous physical activity], its timing, particularly in the evening, was consistently associated with the lowest risk of mortality relative to other timing windows.”

SOURCE:

The study, led by Angelo Sabag, PhD, Charles Perkins Centre, University of Sydney, Australia, was published online in Diabetes Care.

LIMITATIONS:

Because this was an observational study, the possibility of reverse causation from prodromal disease and unaccounted confounding factors could not have been ruled out. There was a lag of a median of 5.5 years between the UK Biobank baseline, when covariate measurements were taken, and the accelerometry study. Moreover, the response rate of the UK Biobank was low.

DISCLOSURES:

The study was funded by an Australian National Health and Medical Research Council Investigator Grant and the National Heart Foundation of Australia Postdoctoral Fellowship. The authors reported no conflicts of interest.

A version of this article appeared on Medscape.com.

An algorithm-driven risk assessment embedded in an electronic health record (EHR) helped clinicians reduce inappropriate broad-spectrum antibiotic prescribing by 17.4% and 28.4% in patients with UTIs and pneumonia, respectively, according to two related studies published in JAMA.

The randomized control trials included more than 200,000 adult patients with non–life threatening pneumonia or urinary tract infections (UTIs) in 59 hospitals owned by HCA Healthcare across the country. 

Researchers analyzed baseline prescribing behaviors over an 18-month period starting in April 2017, and data from a 15-month period of implementation of the new antibiotic system starting in April 2019.

They focused on the use of broad-spectrum antibiotics during the first 3 days of hospital admission, before microbiologic test results came back, and when clinicians are likely to err on the side of caution and prescribe one of the drugs, according to lead author Shruti K. Gohil, MD, MPH, associate medical director of epidemiology and infection prevention, infectious diseases at the University of California Irvine School of Medicine. 

“When a patient comes in with pneumonia or a UTI, it’s precisely because we are concerned that our patients have a multidrug-resistant organism that we end up using broad-spectrum antibiotics,” she said. 

Despite growing awareness of the need to reduce unnecessary antibiotic use, clinicians have still been slow to adopt a more conservative approach to prescribing, Dr. Gohil said. 

“What physicians have been needing is something to hang their hat on, to be able to say, ‘Okay, well, this one’s a low-risk person,’ ” Dr. Gohil said. 

The trials compared the impact of routine antibiotic activities with a stewardship bundle, called INSPIRE (Intelligent Stewardship Prompts to Improve Real-time Empiric Antibiotic Selection). 

Both groups received educational materials, quarterly coaching calls, prospective evaluations for antibiotic use, and were required to select a reason for prescribing an antibiotic. 

But prescribers in the intervention group took part in monthly coaching calls and feedback reports. In addition, if a clinician ordered a broad-spectrum antibiotic to treat pneumonia or a UTI outside of the intensive care unit within 72 hours of admission, an EHR prompt would pop up. The pop-up suggested a standard-spectrum antibiotic instead if patient risk for developing a multidrug-resistant (MDRO) version of either condition was less than 10%. 

An algorithm used data from the EHR calculated risk, using factors like patient demographics and history and MDRO infection at the community and hospital level. 

Prescribing rates were based on the number of days a patient received a broad-spectrum antibiotic during the first 72 hours of hospitalization. 

For the UTI intervention group, rates dropped by 17.4% (rate ratio [RR], 0.83; 95% CI, 0.77-0.89; P < .001), and 28.4% reduction in the pneumonia group (RR, 0.72; 95% CI, 0.66-0.78; P < .001). 

“We cannot know which element — prompt, education, or feedback — worked, but the data suggests that the prompt was the main driver,” Dr. Gohil said.

“In antibiotic stewardship, we have learned not only that doctors want to do the right thing, but that we as stewards need to make it easy for them do the right thing,” said Paul Pottinger, MD, professor of medicine at the Division of Allergy and Infectious Diseases at the University of Washington Medical Center in Seattle. 

The prompt “is your easy button,” said Dr. Pottinger, who was not involved with either study. “The researchers made it simple, fast, and straightforward, so people don’t have to think about it too much.”

The studies showed similar safety outcomes for the control and intervention groups. Among patients with a UTI, those in the control group were transferred to the ICU after an average of 6.6 days compared to 7 days in the intervention group. Among patients with pneumonia, the average days to ICU transfer were 6.5 for the control group and 7.1 for the intervention group. 

“This study is a proof of concept that physicians want to do the right thing and are willing to trust this information,” Dr. Pottinger said. “And this also shows us that this tool can be refined and made even more precise over time.” 

The study was funded by the US Centers for Disease Control and Prevention and was led by the University of California Irvine, Harvard Pilgrim Healthcare Institute, and HCA Healthcare System. Various authors report funding and support from entities outside the submitted work. The full list can be found with the original articles.

A version of this article appeared on Medscape.com.

An algorithm-driven risk assessment embedded in an electronic health record (EHR) helped clinicians reduce inappropriate broad-spectrum antibiotic prescribing by 17.4% and 28.4% in patients with UTIs and pneumonia, respectively, according to two related studies published in JAMA.

The randomized control trials included more than 200,000 adult patients with non–life threatening pneumonia or urinary tract infections (UTIs) in 59 hospitals owned by HCA Healthcare across the country. 

Researchers analyzed baseline prescribing behaviors over an 18-month period starting in April 2017, and data from a 15-month period of implementation of the new antibiotic system starting in April 2019.

They focused on the use of broad-spectrum antibiotics during the first 3 days of hospital admission, before microbiologic test results came back, and when clinicians are likely to err on the side of caution and prescribe one of the drugs, according to lead author Shruti K. Gohil, MD, MPH, associate medical director of epidemiology and infection prevention, infectious diseases at the University of California Irvine School of Medicine. 

“When a patient comes in with pneumonia or a UTI, it’s precisely because we are concerned that our patients have a multidrug-resistant organism that we end up using broad-spectrum antibiotics,” she said. 

Despite growing awareness of the need to reduce unnecessary antibiotic use, clinicians have still been slow to adopt a more conservative approach to prescribing, Dr. Gohil said. 

“What physicians have been needing is something to hang their hat on, to be able to say, ‘Okay, well, this one’s a low-risk person,’ ” Dr. Gohil said. 

The trials compared the impact of routine antibiotic activities with a stewardship bundle, called INSPIRE (Intelligent Stewardship Prompts to Improve Real-time Empiric Antibiotic Selection). 

Both groups received educational materials, quarterly coaching calls, prospective evaluations for antibiotic use, and were required to select a reason for prescribing an antibiotic. 

But prescribers in the intervention group took part in monthly coaching calls and feedback reports. In addition, if a clinician ordered a broad-spectrum antibiotic to treat pneumonia or a UTI outside of the intensive care unit within 72 hours of admission, an EHR prompt would pop up. The pop-up suggested a standard-spectrum antibiotic instead if patient risk for developing a multidrug-resistant (MDRO) version of either condition was less than 10%. 

An algorithm used data from the EHR calculated risk, using factors like patient demographics and history and MDRO infection at the community and hospital level. 

Prescribing rates were based on the number of days a patient received a broad-spectrum antibiotic during the first 72 hours of hospitalization. 

For the UTI intervention group, rates dropped by 17.4% (rate ratio [RR], 0.83; 95% CI, 0.77-0.89; P < .001), and 28.4% reduction in the pneumonia group (RR, 0.72; 95% CI, 0.66-0.78; P < .001). 

“We cannot know which element — prompt, education, or feedback — worked, but the data suggests that the prompt was the main driver,” Dr. Gohil said.

“In antibiotic stewardship, we have learned not only that doctors want to do the right thing, but that we as stewards need to make it easy for them do the right thing,” said Paul Pottinger, MD, professor of medicine at the Division of Allergy and Infectious Diseases at the University of Washington Medical Center in Seattle. 

The prompt “is your easy button,” said Dr. Pottinger, who was not involved with either study. “The researchers made it simple, fast, and straightforward, so people don’t have to think about it too much.”

The studies showed similar safety outcomes for the control and intervention groups. Among patients with a UTI, those in the control group were transferred to the ICU after an average of 6.6 days compared to 7 days in the intervention group. Among patients with pneumonia, the average days to ICU transfer were 6.5 for the control group and 7.1 for the intervention group. 

“This study is a proof of concept that physicians want to do the right thing and are willing to trust this information,” Dr. Pottinger said. “And this also shows us that this tool can be refined and made even more precise over time.” 

The study was funded by the US Centers for Disease Control and Prevention and was led by the University of California Irvine, Harvard Pilgrim Healthcare Institute, and HCA Healthcare System. Various authors report funding and support from entities outside the submitted work. The full list can be found with the original articles.

A version of this article appeared on Medscape.com.

An algorithm-driven risk assessment embedded in an electronic health record (EHR) helped clinicians reduce inappropriate broad-spectrum antibiotic prescribing by 17.4% and 28.4% in patients with UTIs and pneumonia, respectively, according to two related studies published in JAMA.

The randomized control trials included more than 200,000 adult patients with non–life threatening pneumonia or urinary tract infections (UTIs) in 59 hospitals owned by HCA Healthcare across the country. 

Researchers analyzed baseline prescribing behaviors over an 18-month period starting in April 2017, and data from a 15-month period of implementation of the new antibiotic system starting in April 2019.

They focused on the use of broad-spectrum antibiotics during the first 3 days of hospital admission, before microbiologic test results came back, and when clinicians are likely to err on the side of caution and prescribe one of the drugs, according to lead author Shruti K. Gohil, MD, MPH, associate medical director of epidemiology and infection prevention, infectious diseases at the University of California Irvine School of Medicine. 

“When a patient comes in with pneumonia or a UTI, it’s precisely because we are concerned that our patients have a multidrug-resistant organism that we end up using broad-spectrum antibiotics,” she said. 

Despite growing awareness of the need to reduce unnecessary antibiotic use, clinicians have still been slow to adopt a more conservative approach to prescribing, Dr. Gohil said. 

“What physicians have been needing is something to hang their hat on, to be able to say, ‘Okay, well, this one’s a low-risk person,’ ” Dr. Gohil said. 

The trials compared the impact of routine antibiotic activities with a stewardship bundle, called INSPIRE (Intelligent Stewardship Prompts to Improve Real-time Empiric Antibiotic Selection). 

Both groups received educational materials, quarterly coaching calls, prospective evaluations for antibiotic use, and were required to select a reason for prescribing an antibiotic. 

But prescribers in the intervention group took part in monthly coaching calls and feedback reports. In addition, if a clinician ordered a broad-spectrum antibiotic to treat pneumonia or a UTI outside of the intensive care unit within 72 hours of admission, an EHR prompt would pop up. The pop-up suggested a standard-spectrum antibiotic instead if patient risk for developing a multidrug-resistant (MDRO) version of either condition was less than 10%. 

An algorithm used data from the EHR calculated risk, using factors like patient demographics and history and MDRO infection at the community and hospital level. 

Prescribing rates were based on the number of days a patient received a broad-spectrum antibiotic during the first 72 hours of hospitalization. 

For the UTI intervention group, rates dropped by 17.4% (rate ratio [RR], 0.83; 95% CI, 0.77-0.89; P < .001), and 28.4% reduction in the pneumonia group (RR, 0.72; 95% CI, 0.66-0.78; P < .001). 

“We cannot know which element — prompt, education, or feedback — worked, but the data suggests that the prompt was the main driver,” Dr. Gohil said.

“In antibiotic stewardship, we have learned not only that doctors want to do the right thing, but that we as stewards need to make it easy for them do the right thing,” said Paul Pottinger, MD, professor of medicine at the Division of Allergy and Infectious Diseases at the University of Washington Medical Center in Seattle. 

The prompt “is your easy button,” said Dr. Pottinger, who was not involved with either study. “The researchers made it simple, fast, and straightforward, so people don’t have to think about it too much.”

The studies showed similar safety outcomes for the control and intervention groups. Among patients with a UTI, those in the control group were transferred to the ICU after an average of 6.6 days compared to 7 days in the intervention group. Among patients with pneumonia, the average days to ICU transfer were 6.5 for the control group and 7.1 for the intervention group. 

“This study is a proof of concept that physicians want to do the right thing and are willing to trust this information,” Dr. Pottinger said. “And this also shows us that this tool can be refined and made even more precise over time.” 

The study was funded by the US Centers for Disease Control and Prevention and was led by the University of California Irvine, Harvard Pilgrim Healthcare Institute, and HCA Healthcare System. Various authors report funding and support from entities outside the submitted work. The full list can be found with the original articles.

A version of this article appeared on Medscape.com.