Cardiology News

Physicians and other clinicians could more easily exit contracts and change jobs under the Federal Trade Commission’s new proposed rule that would block companies from limiting employees’ ability to work for a rival.

The proposed rule seeks to ban companies from enforcing noncompete clauses in employment contracts, a practice that represents an “unfair method of competition” with “exploitative and widespread” impacts, including suppression of wages, innovation, and entrepreneurial spirit, the FTC said. The public has 60 days to submit comments on the proposal before the FTC issues the final rule.

Employers often include noncompete clauses in physician contracts because they want to avoid having patients leave their health care system and follow a doctor to a competitor. A 2018 survey of primary care physicians found that about half of office-based physicians and 37% of physicians employed at hospitals or freestanding care centers were bound by restrictive covenants.

“A federal ban on noncompete agreements will ensure that physicians nationwide can finally change jobs without fear of being sued,” Erik B. Smith, MD, JD, clinical assistant professor of anesthesiology at the University of Southern California, Los Angeles, said in an interview.

Many doctors would like to see noncompete agreements vanish, but some physicians still favor them.

“As a small-practice owner, I am personally against this. The noncompete helps me take a risk and hire a physician. It typically takes 2-3 years for me to break even. I think this will further consolidate employment with large hospital systems unfortunately,” Texas cardiologist Rishin Shah, MD, recently tweeted in response to the FTC announcement.

Dr. Smith, who has advocated for noncompete reform, said about half of states currently allow the controversial clauses.

However, several states have recently passed laws restricting their use. California, North Dakota, and Oklahoma ban noncompetes, although some narrowly defined exceptions, such as the sale of a business, remain.

Other states, like Colorado, Illinois, and Oregon, broadly ban noncompete clauses, except for workers earning above a certain threshold. For example, in Colorado, noncompete agreements are permitted for highly compensated employees earning more than $101,250.

Despite additional restrictions on noncompete agreements for workers in the District of Columbia, the new legislation does not apply to physicians earning total compensation of $250,000 or more. However, their employers must define the geographic parameters of the noncompete and limit postemployment restrictions to 2 years.

Restrictive covenants are “uniquely challenging to family medicine’s emphasis on longitudinal care and the patient-physician relationship,” said Tochi Iroku-Malize, MD, MPH, president of the American Academy of Family Physicians. The limitations imposed by noncompete agreements “potentially reduce patient choice, lower the quality of care for patients, and ultimately harm the foundation of family medicine – our relationships with our patients.”

Although the proposed rule aligns with President Biden’s executive order promoting economic competition, Dr. Smith said a national ban on noncompete agreements may push the limits of FTC authority.

“This new rule will certainly result in a ‘major questions doctrine’ Supreme Court challenge,” said Dr. Smith, and possibly be struck down if the court determines an administrative overstep into areas of “vast economic or political significance.”
 

A controversial policy

The American Medical Association’s code of ethics discourages covenants that “unreasonably restrict” the ability of physicians to practice following contract termination. And in 2022, the AMA cited “overly broad” noncompete language as a red flag young physicians should watch out for during contract negotiations.

But in 2020, the AMA asked the FTC not to use its rulemaking authority to regulate noncompete clauses in physician employment contracts, and instead, relegate enforcement of such agreements to each state. The American Hospital Association expressed similar views.

Still, the FTC said that eliminating noncompete clauses will increase annual wages by $300 billion, allow 30 million Americans to pursue better job opportunities, and encourage hiring competition among employers. It will also save consumers up to $148 billion in health care costs annually.

“Noncompetes block workers from freely switching jobs, depriving them of higher wages and better working conditions, and depriving businesses of a talent pool that they need to build and expand,” Lina M. Khan, FTC chair, said in a press release about the proposal.

A national ban on noncompetes would keep more physicians in the industry and practicing in their communities, a win for patients and providers, said Dr. Smith. It could also compel employers to offer more competitive employment packages, including fair wages, better work conditions, and a culture of well-being and patient safety.

“Whatever the final rule is, I’m certain it will be legally challenged,” said Dr. Smith, adding that the nation’s most prominent business lobbying group, the Chamber of Commerce, has already issued a statement calling the rule “blatantly unlawful."

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

Physicians and other clinicians could more easily exit contracts and change jobs under the Federal Trade Commission’s new proposed rule that would block companies from limiting employees’ ability to work for a rival.

The proposed rule seeks to ban companies from enforcing noncompete clauses in employment contracts, a practice that represents an “unfair method of competition” with “exploitative and widespread” impacts, including suppression of wages, innovation, and entrepreneurial spirit, the FTC said. The public has 60 days to submit comments on the proposal before the FTC issues the final rule.

Employers often include noncompete clauses in physician contracts because they want to avoid having patients leave their health care system and follow a doctor to a competitor. A 2018 survey of primary care physicians found that about half of office-based physicians and 37% of physicians employed at hospitals or freestanding care centers were bound by restrictive covenants.

“A federal ban on noncompete agreements will ensure that physicians nationwide can finally change jobs without fear of being sued,” Erik B. Smith, MD, JD, clinical assistant professor of anesthesiology at the University of Southern California, Los Angeles, said in an interview.

Many doctors would like to see noncompete agreements vanish, but some physicians still favor them.

“As a small-practice owner, I am personally against this. The noncompete helps me take a risk and hire a physician. It typically takes 2-3 years for me to break even. I think this will further consolidate employment with large hospital systems unfortunately,” Texas cardiologist Rishin Shah, MD, recently tweeted in response to the FTC announcement.

Dr. Smith, who has advocated for noncompete reform, said about half of states currently allow the controversial clauses.

However, several states have recently passed laws restricting their use. California, North Dakota, and Oklahoma ban noncompetes, although some narrowly defined exceptions, such as the sale of a business, remain.

Other states, like Colorado, Illinois, and Oregon, broadly ban noncompete clauses, except for workers earning above a certain threshold. For example, in Colorado, noncompete agreements are permitted for highly compensated employees earning more than $101,250.

Despite additional restrictions on noncompete agreements for workers in the District of Columbia, the new legislation does not apply to physicians earning total compensation of $250,000 or more. However, their employers must define the geographic parameters of the noncompete and limit postemployment restrictions to 2 years.

Restrictive covenants are “uniquely challenging to family medicine’s emphasis on longitudinal care and the patient-physician relationship,” said Tochi Iroku-Malize, MD, MPH, president of the American Academy of Family Physicians. The limitations imposed by noncompete agreements “potentially reduce patient choice, lower the quality of care for patients, and ultimately harm the foundation of family medicine – our relationships with our patients.”

Although the proposed rule aligns with President Biden’s executive order promoting economic competition, Dr. Smith said a national ban on noncompete agreements may push the limits of FTC authority.

“This new rule will certainly result in a ‘major questions doctrine’ Supreme Court challenge,” said Dr. Smith, and possibly be struck down if the court determines an administrative overstep into areas of “vast economic or political significance.”
 

A controversial policy

The American Medical Association’s code of ethics discourages covenants that “unreasonably restrict” the ability of physicians to practice following contract termination. And in 2022, the AMA cited “overly broad” noncompete language as a red flag young physicians should watch out for during contract negotiations.

But in 2020, the AMA asked the FTC not to use its rulemaking authority to regulate noncompete clauses in physician employment contracts, and instead, relegate enforcement of such agreements to each state. The American Hospital Association expressed similar views.

Still, the FTC said that eliminating noncompete clauses will increase annual wages by $300 billion, allow 30 million Americans to pursue better job opportunities, and encourage hiring competition among employers. It will also save consumers up to $148 billion in health care costs annually.

“Noncompetes block workers from freely switching jobs, depriving them of higher wages and better working conditions, and depriving businesses of a talent pool that they need to build and expand,” Lina M. Khan, FTC chair, said in a press release about the proposal.

A national ban on noncompetes would keep more physicians in the industry and practicing in their communities, a win for patients and providers, said Dr. Smith. It could also compel employers to offer more competitive employment packages, including fair wages, better work conditions, and a culture of well-being and patient safety.

“Whatever the final rule is, I’m certain it will be legally challenged,” said Dr. Smith, adding that the nation’s most prominent business lobbying group, the Chamber of Commerce, has already issued a statement calling the rule “blatantly unlawful."

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

Physicians and other clinicians could more easily exit contracts and change jobs under the Federal Trade Commission’s new proposed rule that would block companies from limiting employees’ ability to work for a rival.

The proposed rule seeks to ban companies from enforcing noncompete clauses in employment contracts, a practice that represents an “unfair method of competition” with “exploitative and widespread” impacts, including suppression of wages, innovation, and entrepreneurial spirit, the FTC said. The public has 60 days to submit comments on the proposal before the FTC issues the final rule.

Employers often include noncompete clauses in physician contracts because they want to avoid having patients leave their health care system and follow a doctor to a competitor. A 2018 survey of primary care physicians found that about half of office-based physicians and 37% of physicians employed at hospitals or freestanding care centers were bound by restrictive covenants.

“A federal ban on noncompete agreements will ensure that physicians nationwide can finally change jobs without fear of being sued,” Erik B. Smith, MD, JD, clinical assistant professor of anesthesiology at the University of Southern California, Los Angeles, said in an interview.

Many doctors would like to see noncompete agreements vanish, but some physicians still favor them.

“As a small-practice owner, I am personally against this. The noncompete helps me take a risk and hire a physician. It typically takes 2-3 years for me to break even. I think this will further consolidate employment with large hospital systems unfortunately,” Texas cardiologist Rishin Shah, MD, recently tweeted in response to the FTC announcement.

Dr. Smith, who has advocated for noncompete reform, said about half of states currently allow the controversial clauses.

However, several states have recently passed laws restricting their use. California, North Dakota, and Oklahoma ban noncompetes, although some narrowly defined exceptions, such as the sale of a business, remain.

Other states, like Colorado, Illinois, and Oregon, broadly ban noncompete clauses, except for workers earning above a certain threshold. For example, in Colorado, noncompete agreements are permitted for highly compensated employees earning more than $101,250.

Despite additional restrictions on noncompete agreements for workers in the District of Columbia, the new legislation does not apply to physicians earning total compensation of $250,000 or more. However, their employers must define the geographic parameters of the noncompete and limit postemployment restrictions to 2 years.

Restrictive covenants are “uniquely challenging to family medicine’s emphasis on longitudinal care and the patient-physician relationship,” said Tochi Iroku-Malize, MD, MPH, president of the American Academy of Family Physicians. The limitations imposed by noncompete agreements “potentially reduce patient choice, lower the quality of care for patients, and ultimately harm the foundation of family medicine – our relationships with our patients.”

Although the proposed rule aligns with President Biden’s executive order promoting economic competition, Dr. Smith said a national ban on noncompete agreements may push the limits of FTC authority.

“This new rule will certainly result in a ‘major questions doctrine’ Supreme Court challenge,” said Dr. Smith, and possibly be struck down if the court determines an administrative overstep into areas of “vast economic or political significance.”
 

A controversial policy

The American Medical Association’s code of ethics discourages covenants that “unreasonably restrict” the ability of physicians to practice following contract termination. And in 2022, the AMA cited “overly broad” noncompete language as a red flag young physicians should watch out for during contract negotiations.

But in 2020, the AMA asked the FTC not to use its rulemaking authority to regulate noncompete clauses in physician employment contracts, and instead, relegate enforcement of such agreements to each state. The American Hospital Association expressed similar views.

Still, the FTC said that eliminating noncompete clauses will increase annual wages by $300 billion, allow 30 million Americans to pursue better job opportunities, and encourage hiring competition among employers. It will also save consumers up to $148 billion in health care costs annually.

“Noncompetes block workers from freely switching jobs, depriving them of higher wages and better working conditions, and depriving businesses of a talent pool that they need to build and expand,” Lina M. Khan, FTC chair, said in a press release about the proposal.

A national ban on noncompetes would keep more physicians in the industry and practicing in their communities, a win for patients and providers, said Dr. Smith. It could also compel employers to offer more competitive employment packages, including fair wages, better work conditions, and a culture of well-being and patient safety.

“Whatever the final rule is, I’m certain it will be legally challenged,” said Dr. Smith, adding that the nation’s most prominent business lobbying group, the Chamber of Commerce, has already issued a statement calling the rule “blatantly unlawful."

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

Every year, during the relatively slow winter-months period, I like to take a tour of my office from the paradigm of a patient visiting our facility for the first time. When was the last time you did a comprehensive inspection, looking for problems that your patients might see?

We tend not to notice gradual deterioration in the workplace we inhabit every day: Carpets fade and dull with constant traffic and cleaning; wallpaper and paint accumulate dirt, stains, and damage; furniture gets dirty and dented, fabric rips, hardware goes missing; laminate peels off the edges of desks and cabinets.

When did you last take a good look at your waiting room? How clean is it? Patients expect cleanliness in doctor’s offices, and they expect the reception area to be neat. How are the carpeting and upholstery holding up? Sit in your chairs; how do they feel? Patients don’t appreciate a sore back or bottom from any chairs, especially in a medical office. Consider investing in new furniture that will be attractive and comfortable for your patients.

Look at the decor itself; is it dated or just plain “old-looking?” Any interior designer will tell you they can determine quite accurately when a space was last decorated, simply by the color and style of the materials used. If your office is stuck in the ‘90s, it’s probably time for a change. Even if you don’t find anything obvious, it’s wise to check periodically for subtle evidence of age: Find some patches of protected carpeting and flooring under stationary furniture and compare them to exposed floors.

If your color scheme is hopelessly out of date and style, or if you are just tired of it, change it. Wallpaper and carpeting should be long-wearing industrial quality; paint should be high-quality “eggshell” finish to facilitate cleaning, and everything should be professionally applied. (This is neither the time nor place for do-it-yourself experiments.) Consider updating your overhead lighting. The harsh glow of fluorescent lights amid an uninspired decor creates a sterile, uninviting atmosphere.

During renovation, get your building’s maintenance crew to fix any nagging plumbing, electrical, or heating/air conditioning problems while pipes, ducts, and wires are more readily accessible. This is also a good time to clear out old textbooks, journals, and files that you will never open again, in this digital age.

If your wall decorations are dated and unattractive, now would be a good time to replace at least some of them. This need not be an expensive proposition; a few years ago, I redecorated my exam room walls with framed photos from my travel adventures – to very positive responses from patients and staff alike. If you’re not an artist or photographer, invite a family member, or local artists or talented patients, to display some of their creations on your walls. If you get too many contributions, you can rotate them on a periodic basis.

Plants are great aesthetic accents, yet many offices have little or no plant life. Plants naturally aerate an office suite and help make it feel less stuffy. Also, multiple studies have found that plants promote productivity among office staff and create a sense of calm for apprehensive patients. Improvements like this can make a big difference. They show an attention to detail and a willingness to make your practice as inviting as possible for patients and employees alike.

Spruce-up time is also an excellent opportunity to inventory your medical equipment. We’ve all seen “vintage” offices full of gadgets that were state-of-the-art decades ago. Nostalgia is nice; but would you want to be treated by a physician whose office could be a Smithsonian exhibit titled, “Doctor’s Office Circa 1975?” Neither would your patients, for the most part; many – particularly younger ones – assume that doctors who don’t keep up with technological innovations don’t keep up with anything else, either.

If you’re planning a vacation this year (and I hope you are), that would be the perfect time for a re-do. Your patients will be spared the dust and turmoil, tradespeople won’t have to work around your office hours, and you won’t have to cancel any hours that weren’t already canceled. Best of all, you’ll come back to a clean, fresh environment.

Dr. Eastern practices dermatology and dermatologic surgery in Belleville, N.J. He is the author of numerous articles and textbook chapters, and is a longtime monthly columnist for Dermatology News. Write to him at [email protected].

Every year, during the relatively slow winter-months period, I like to take a tour of my office from the paradigm of a patient visiting our facility for the first time. When was the last time you did a comprehensive inspection, looking for problems that your patients might see?

We tend not to notice gradual deterioration in the workplace we inhabit every day: Carpets fade and dull with constant traffic and cleaning; wallpaper and paint accumulate dirt, stains, and damage; furniture gets dirty and dented, fabric rips, hardware goes missing; laminate peels off the edges of desks and cabinets.

When did you last take a good look at your waiting room? How clean is it? Patients expect cleanliness in doctor’s offices, and they expect the reception area to be neat. How are the carpeting and upholstery holding up? Sit in your chairs; how do they feel? Patients don’t appreciate a sore back or bottom from any chairs, especially in a medical office. Consider investing in new furniture that will be attractive and comfortable for your patients.

Look at the decor itself; is it dated or just plain “old-looking?” Any interior designer will tell you they can determine quite accurately when a space was last decorated, simply by the color and style of the materials used. If your office is stuck in the ‘90s, it’s probably time for a change. Even if you don’t find anything obvious, it’s wise to check periodically for subtle evidence of age: Find some patches of protected carpeting and flooring under stationary furniture and compare them to exposed floors.

If your color scheme is hopelessly out of date and style, or if you are just tired of it, change it. Wallpaper and carpeting should be long-wearing industrial quality; paint should be high-quality “eggshell” finish to facilitate cleaning, and everything should be professionally applied. (This is neither the time nor place for do-it-yourself experiments.) Consider updating your overhead lighting. The harsh glow of fluorescent lights amid an uninspired decor creates a sterile, uninviting atmosphere.

During renovation, get your building’s maintenance crew to fix any nagging plumbing, electrical, or heating/air conditioning problems while pipes, ducts, and wires are more readily accessible. This is also a good time to clear out old textbooks, journals, and files that you will never open again, in this digital age.

If your wall decorations are dated and unattractive, now would be a good time to replace at least some of them. This need not be an expensive proposition; a few years ago, I redecorated my exam room walls with framed photos from my travel adventures – to very positive responses from patients and staff alike. If you’re not an artist or photographer, invite a family member, or local artists or talented patients, to display some of their creations on your walls. If you get too many contributions, you can rotate them on a periodic basis.

Plants are great aesthetic accents, yet many offices have little or no plant life. Plants naturally aerate an office suite and help make it feel less stuffy. Also, multiple studies have found that plants promote productivity among office staff and create a sense of calm for apprehensive patients. Improvements like this can make a big difference. They show an attention to detail and a willingness to make your practice as inviting as possible for patients and employees alike.

Spruce-up time is also an excellent opportunity to inventory your medical equipment. We’ve all seen “vintage” offices full of gadgets that were state-of-the-art decades ago. Nostalgia is nice; but would you want to be treated by a physician whose office could be a Smithsonian exhibit titled, “Doctor’s Office Circa 1975?” Neither would your patients, for the most part; many – particularly younger ones – assume that doctors who don’t keep up with technological innovations don’t keep up with anything else, either.

If you’re planning a vacation this year (and I hope you are), that would be the perfect time for a re-do. Your patients will be spared the dust and turmoil, tradespeople won’t have to work around your office hours, and you won’t have to cancel any hours that weren’t already canceled. Best of all, you’ll come back to a clean, fresh environment.

Dr. Eastern practices dermatology and dermatologic surgery in Belleville, N.J. He is the author of numerous articles and textbook chapters, and is a longtime monthly columnist for Dermatology News. Write to him at [email protected].

Every year, during the relatively slow winter-months period, I like to take a tour of my office from the paradigm of a patient visiting our facility for the first time. When was the last time you did a comprehensive inspection, looking for problems that your patients might see?

We tend not to notice gradual deterioration in the workplace we inhabit every day: Carpets fade and dull with constant traffic and cleaning; wallpaper and paint accumulate dirt, stains, and damage; furniture gets dirty and dented, fabric rips, hardware goes missing; laminate peels off the edges of desks and cabinets.

When did you last take a good look at your waiting room? How clean is it? Patients expect cleanliness in doctor’s offices, and they expect the reception area to be neat. How are the carpeting and upholstery holding up? Sit in your chairs; how do they feel? Patients don’t appreciate a sore back or bottom from any chairs, especially in a medical office. Consider investing in new furniture that will be attractive and comfortable for your patients.

Look at the decor itself; is it dated or just plain “old-looking?” Any interior designer will tell you they can determine quite accurately when a space was last decorated, simply by the color and style of the materials used. If your office is stuck in the ‘90s, it’s probably time for a change. Even if you don’t find anything obvious, it’s wise to check periodically for subtle evidence of age: Find some patches of protected carpeting and flooring under stationary furniture and compare them to exposed floors.

If your color scheme is hopelessly out of date and style, or if you are just tired of it, change it. Wallpaper and carpeting should be long-wearing industrial quality; paint should be high-quality “eggshell” finish to facilitate cleaning, and everything should be professionally applied. (This is neither the time nor place for do-it-yourself experiments.) Consider updating your overhead lighting. The harsh glow of fluorescent lights amid an uninspired decor creates a sterile, uninviting atmosphere.

During renovation, get your building’s maintenance crew to fix any nagging plumbing, electrical, or heating/air conditioning problems while pipes, ducts, and wires are more readily accessible. This is also a good time to clear out old textbooks, journals, and files that you will never open again, in this digital age.

If your wall decorations are dated and unattractive, now would be a good time to replace at least some of them. This need not be an expensive proposition; a few years ago, I redecorated my exam room walls with framed photos from my travel adventures – to very positive responses from patients and staff alike. If you’re not an artist or photographer, invite a family member, or local artists or talented patients, to display some of their creations on your walls. If you get too many contributions, you can rotate them on a periodic basis.

Plants are great aesthetic accents, yet many offices have little or no plant life. Plants naturally aerate an office suite and help make it feel less stuffy. Also, multiple studies have found that plants promote productivity among office staff and create a sense of calm for apprehensive patients. Improvements like this can make a big difference. They show an attention to detail and a willingness to make your practice as inviting as possible for patients and employees alike.

Spruce-up time is also an excellent opportunity to inventory your medical equipment. We’ve all seen “vintage” offices full of gadgets that were state-of-the-art decades ago. Nostalgia is nice; but would you want to be treated by a physician whose office could be a Smithsonian exhibit titled, “Doctor’s Office Circa 1975?” Neither would your patients, for the most part; many – particularly younger ones – assume that doctors who don’t keep up with technological innovations don’t keep up with anything else, either.

If you’re planning a vacation this year (and I hope you are), that would be the perfect time for a re-do. Your patients will be spared the dust and turmoil, tradespeople won’t have to work around your office hours, and you won’t have to cancel any hours that weren’t already canceled. Best of all, you’ll come back to a clean, fresh environment.

Dr. Eastern practices dermatology and dermatologic surgery in Belleville, N.J. He is the author of numerous articles and textbook chapters, and is a longtime monthly columnist for Dermatology News. Write to him at [email protected].

Metformin failure in people with type 2 diabetes is very common, particularly among those with high hemoglobin A1c levels at the time of diagnosis, new findings suggest.

An analysis of electronic health record data for more than 22,000 patients starting metformin at three U.S. clinical sites found that over 40% experienced metformin failure.

This was defined as either failure to achieve or maintain A1c less than 7% within 18 months or the use of additional glucose-lowering medications.

Other predictors that metformin use wouldn’t be successful included increasing age, male sex, and race/ethnicity. However, the latter ceased to be linked after adjustment for other clinical risk factors.

“Our study results suggest increased monitoring with potentially earlier treatment intensification to achieve glycemic control may be appropriate in patients with clinical parameters described in this paper,” Suzette J. Bielinski, PhD, and colleagues wrote.

“Further, these results call into question the ubiquitous use of metformin as the first-line therapy and suggest a more individualized approach may be needed to optimize therapy,” they added in their article, published online in the Journal of Clinical Endocrinology and Metabolism.

The study is also noteworthy in that it demonstrated the feasibility of using EHR data with a machine-learning approach to discover risk biomarkers, Dr. Bielinski, professor of epidemiology at the Mayo Clinic, Rochester, Minn., said in an interview.

“We wanted to repurpose clinical data to answer questions ... I think more studies using these types of techniques repurposing data meant for one thing could potentially impact care in other domains. ... If we can get the bang for the buck from all these data that we generate on people I just think it will improve health care and maybe save health care dollars.”
 

Baseline A1c strongest predictor of metformin failure

The investigators identified a total of 22,047 metformin initiators from three clinical primary care sites: the University of Mississippi’s Jackson centers, which serves a mostly African American population, the Mountain Park Health Center in Arizona, a seven-clinic federally qualified community health center in Phoenix that serves a mostly Latino population, and the Rochester Epidemiology Project, which includes the Mayo Clinic and serves a primarily White population.  

Overall, a total of 43% (9,407) of patients met one of two criteria for metformin failure by 18 months. Among those, median time to failure on metformin was 3.9 months.

Unadjusted failure rates were higher among African Americans, Hispanics, and other racial groups, compared with non-Hispanic White patients.

However, the racial groups also differed by baseline characteristics. Mean A1c was 7.7% overall, 8.1% for the African American group, 7.9% for Asians, and 8.2% for Hispanics, compared with 7.6% for non-Hispanic Whites.

Of 150 clinical factors examined, higher A1c was the strongest predictor of metformin failure, with a rapid increase in risk appearing between 7.5% and 8.0%.

“The slope is steep. It gives us some clinical guidance,” Dr. Bielinski said.

Other variables positively correlated with metformin failure included “diabetes with complications,” increased age, and higher levels of potassium, triglycerides, heart rate, and mean cell hemoglobin.

Factors inversely correlated with metformin failure were having received screening for other suspected conditions and medical examination/evaluation, and lower levels of sodium, albumin, and HDL cholesterol.  

Three variables – body mass index, LDL cholesterol, and creatinine – had a U-shaped relationship with metformin failure, so that both high and low values were associated with increased risk.

“The racial/ethnic differences disappeared once other clinical factors were considered suggesting that the biological response to metformin is similar regardless of race/ethnicity,” Dr. Bielinski and colleagues wrote.

They also noted that the abnormal lab results which correlated with metformin failure “likely represent biomarkers for chronic illnesses. However, the effect size for lab abnormalities was small compared with that of baseline A1c.”

Dr. Bielinski urged caution in interpreting the findings. “Electronic health records data have limitations. We have evidence that these people were prescribed metformin. We have no idea if they took it. ... I would really be hesitant to be too strong in making clinical recommendations.”

However, she said that the data are “suggestive to say maybe we need to have some kind of threshold where if someone comes in with an A1c of X that they go on dual therapy right away. I think this is opening the door to that.” 

The authors reported no relevant financial relationships.

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

Metformin failure in people with type 2 diabetes is very common, particularly among those with high hemoglobin A1c levels at the time of diagnosis, new findings suggest.

An analysis of electronic health record data for more than 22,000 patients starting metformin at three U.S. clinical sites found that over 40% experienced metformin failure.

This was defined as either failure to achieve or maintain A1c less than 7% within 18 months or the use of additional glucose-lowering medications.

Other predictors that metformin use wouldn’t be successful included increasing age, male sex, and race/ethnicity. However, the latter ceased to be linked after adjustment for other clinical risk factors.

“Our study results suggest increased monitoring with potentially earlier treatment intensification to achieve glycemic control may be appropriate in patients with clinical parameters described in this paper,” Suzette J. Bielinski, PhD, and colleagues wrote.

“Further, these results call into question the ubiquitous use of metformin as the first-line therapy and suggest a more individualized approach may be needed to optimize therapy,” they added in their article, published online in the Journal of Clinical Endocrinology and Metabolism.

The study is also noteworthy in that it demonstrated the feasibility of using EHR data with a machine-learning approach to discover risk biomarkers, Dr. Bielinski, professor of epidemiology at the Mayo Clinic, Rochester, Minn., said in an interview.

“We wanted to repurpose clinical data to answer questions ... I think more studies using these types of techniques repurposing data meant for one thing could potentially impact care in other domains. ... If we can get the bang for the buck from all these data that we generate on people I just think it will improve health care and maybe save health care dollars.”
 

Baseline A1c strongest predictor of metformin failure

The investigators identified a total of 22,047 metformin initiators from three clinical primary care sites: the University of Mississippi’s Jackson centers, which serves a mostly African American population, the Mountain Park Health Center in Arizona, a seven-clinic federally qualified community health center in Phoenix that serves a mostly Latino population, and the Rochester Epidemiology Project, which includes the Mayo Clinic and serves a primarily White population.  

Overall, a total of 43% (9,407) of patients met one of two criteria for metformin failure by 18 months. Among those, median time to failure on metformin was 3.9 months.

Unadjusted failure rates were higher among African Americans, Hispanics, and other racial groups, compared with non-Hispanic White patients.

However, the racial groups also differed by baseline characteristics. Mean A1c was 7.7% overall, 8.1% for the African American group, 7.9% for Asians, and 8.2% for Hispanics, compared with 7.6% for non-Hispanic Whites.

Of 150 clinical factors examined, higher A1c was the strongest predictor of metformin failure, with a rapid increase in risk appearing between 7.5% and 8.0%.

“The slope is steep. It gives us some clinical guidance,” Dr. Bielinski said.

Other variables positively correlated with metformin failure included “diabetes with complications,” increased age, and higher levels of potassium, triglycerides, heart rate, and mean cell hemoglobin.

Factors inversely correlated with metformin failure were having received screening for other suspected conditions and medical examination/evaluation, and lower levels of sodium, albumin, and HDL cholesterol.  

Three variables – body mass index, LDL cholesterol, and creatinine – had a U-shaped relationship with metformin failure, so that both high and low values were associated with increased risk.

“The racial/ethnic differences disappeared once other clinical factors were considered suggesting that the biological response to metformin is similar regardless of race/ethnicity,” Dr. Bielinski and colleagues wrote.

They also noted that the abnormal lab results which correlated with metformin failure “likely represent biomarkers for chronic illnesses. However, the effect size for lab abnormalities was small compared with that of baseline A1c.”

Dr. Bielinski urged caution in interpreting the findings. “Electronic health records data have limitations. We have evidence that these people were prescribed metformin. We have no idea if they took it. ... I would really be hesitant to be too strong in making clinical recommendations.”

However, she said that the data are “suggestive to say maybe we need to have some kind of threshold where if someone comes in with an A1c of X that they go on dual therapy right away. I think this is opening the door to that.” 

The authors reported no relevant financial relationships.

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

Metformin failure in people with type 2 diabetes is very common, particularly among those with high hemoglobin A1c levels at the time of diagnosis, new findings suggest.

An analysis of electronic health record data for more than 22,000 patients starting metformin at three U.S. clinical sites found that over 40% experienced metformin failure.

This was defined as either failure to achieve or maintain A1c less than 7% within 18 months or the use of additional glucose-lowering medications.

Other predictors that metformin use wouldn’t be successful included increasing age, male sex, and race/ethnicity. However, the latter ceased to be linked after adjustment for other clinical risk factors.

“Our study results suggest increased monitoring with potentially earlier treatment intensification to achieve glycemic control may be appropriate in patients with clinical parameters described in this paper,” Suzette J. Bielinski, PhD, and colleagues wrote.

“Further, these results call into question the ubiquitous use of metformin as the first-line therapy and suggest a more individualized approach may be needed to optimize therapy,” they added in their article, published online in the Journal of Clinical Endocrinology and Metabolism.

The study is also noteworthy in that it demonstrated the feasibility of using EHR data with a machine-learning approach to discover risk biomarkers, Dr. Bielinski, professor of epidemiology at the Mayo Clinic, Rochester, Minn., said in an interview.

“We wanted to repurpose clinical data to answer questions ... I think more studies using these types of techniques repurposing data meant for one thing could potentially impact care in other domains. ... If we can get the bang for the buck from all these data that we generate on people I just think it will improve health care and maybe save health care dollars.”
 

Baseline A1c strongest predictor of metformin failure

The investigators identified a total of 22,047 metformin initiators from three clinical primary care sites: the University of Mississippi’s Jackson centers, which serves a mostly African American population, the Mountain Park Health Center in Arizona, a seven-clinic federally qualified community health center in Phoenix that serves a mostly Latino population, and the Rochester Epidemiology Project, which includes the Mayo Clinic and serves a primarily White population.  

Overall, a total of 43% (9,407) of patients met one of two criteria for metformin failure by 18 months. Among those, median time to failure on metformin was 3.9 months.

Unadjusted failure rates were higher among African Americans, Hispanics, and other racial groups, compared with non-Hispanic White patients.

However, the racial groups also differed by baseline characteristics. Mean A1c was 7.7% overall, 8.1% for the African American group, 7.9% for Asians, and 8.2% for Hispanics, compared with 7.6% for non-Hispanic Whites.

Of 150 clinical factors examined, higher A1c was the strongest predictor of metformin failure, with a rapid increase in risk appearing between 7.5% and 8.0%.

“The slope is steep. It gives us some clinical guidance,” Dr. Bielinski said.

Other variables positively correlated with metformin failure included “diabetes with complications,” increased age, and higher levels of potassium, triglycerides, heart rate, and mean cell hemoglobin.

Factors inversely correlated with metformin failure were having received screening for other suspected conditions and medical examination/evaluation, and lower levels of sodium, albumin, and HDL cholesterol.  

Three variables – body mass index, LDL cholesterol, and creatinine – had a U-shaped relationship with metformin failure, so that both high and low values were associated with increased risk.

“The racial/ethnic differences disappeared once other clinical factors were considered suggesting that the biological response to metformin is similar regardless of race/ethnicity,” Dr. Bielinski and colleagues wrote.

They also noted that the abnormal lab results which correlated with metformin failure “likely represent biomarkers for chronic illnesses. However, the effect size for lab abnormalities was small compared with that of baseline A1c.”

Dr. Bielinski urged caution in interpreting the findings. “Electronic health records data have limitations. We have evidence that these people were prescribed metformin. We have no idea if they took it. ... I would really be hesitant to be too strong in making clinical recommendations.”

However, she said that the data are “suggestive to say maybe we need to have some kind of threshold where if someone comes in with an A1c of X that they go on dual therapy right away. I think this is opening the door to that.” 

The authors reported no relevant financial relationships.

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

Atrial dysfunction, widely considered a marker or consequence of other heart diseases, is a relevant clinical entity, which is why it is justified to define atrial failure or insufficiency as “a new syndrome that all cardiologists should be aware of,” said Adrián Baranchuk, MD, PhD, professor of medicine at Queen’s University, Kingston, Ont., during the 2022 48th Argentine Congress of Cardiology in Buenos Aires.

“The atria are like the heart’s silly sisters and can fail just like the ventricle fails. Understanding their function and dysfunction helps us to understand heart failure. And as electrophysiologists and clinical cardiologists, we have to embrace this concept and understand it in depth,” Dr. Baranchuk, president-elect of the Inter-American Society of Cardiology, said in an interview.

The specialist first proposed atrial failure as an entity or syndrome in early 2020 in an article in the Journal of the American College of Cardiology. His four collaborators included the experienced Eugene Braunwald, MD, from Brigham and Women’s Hospital, Boston, and Antoni Bayés de Luna, PhD, from the department of medicine of the autonomous University of Barcelona.
 

Pathology despite function

“In many patients with heart failure, the pump function is preserved, but what causes the pathology? For the last 5-10 years, attention has been focused on the ventricle: whether it contracts poorly or whether it contracts properly and relaxes poorly. However, we have also seen patients in whom the ventricle contracts properly and relaxes properly. Where else can we look? We started looking at atrial contraction, especially the left atrium,” recalled Dr. Baranchuk.

He and his colleagues proposed the following consensus definition of atrial failure or insufficiency: any atrial dysfunction (anatomical, mechanical, electrical, and rheological, including blood homeostasis) that causes impaired function, heart symptoms, and a worsening of quality of life (or life expectancy) in the absence of significant valvular or ventricular abnormalities.

In his presentation, recorded and projected by video from Canada, Dr. Baranchuk pointed out that there are two large groups of causes of atrial failure: one that has to do with electrical disorders of atrial and interatrial contraction and another related to the progressive development of fibrosis, which gradually leads to dyssynchrony in interatrial contraction, pump failure, and impaired atrial function as a reservoir and as a conduit.

“In turn, these mechanisms trigger neurohormonal alterations that perpetuate atrial failure, so it is not just a matter of progressive fibrosis, which is very difficult to treat, but also of constant neurohormonal activation that guarantees that these phenomena never resolve,” said Dr. Baranchuk. The manifestations or end point of this cascade of events are the known ones: stroke, ischemia, and heart failure.
 

New entity necessary?

Defining atrial failure or insufficiency as a clinical entity not only restores the hierarchy of the atria in cardiac function, which was already postulated by William Harvey in 1628, but also enables new lines of research that would eventually allow timely preventive interventions.

One key is early recognition of partial or total interatrial block by analyzing the characteristics of the P wave on the electrocardiogram, which could serve to prevent progression to atrial fibrillation. Left atrial enlargement can also be detected by echocardiography.

“When the contractile impairment is severe and you are in atrial fibrillation, all that remains is to apply patches. The strategy is to correct risk factors beforehand, such as high blood pressure, sleep apnea, or high-dose alcohol consumption, as well as tirelessly searching for atrial fibrillation, with Holter electrocardiograms, continuous monitoring devices, such as Apple Watch, KardiaMobile, or an implantable loop recorder,” Dr. Baranchuk said in an interview.

Two ongoing or planned studies, ARCADIA and AMIABLE, will seek to determine whether anticoagulation in patients with elevated cardiovascular risk scores and any of these atrial disorders that have not yet led to atrial fibrillation could reduce the incidence of stroke.

The strategy has a rational basis. In a subanalysis of raw data from the NAVIGATE ESUS study in patients with embolic stroke of unknown cause, Dr. Baranchuk estimated that the presence of interatrial block was a tenfold higher predictor of the risk of experiencing a second stroke. Another 2018 observational study in which he participated found that in outpatients with heart failure, advanced interatrial block approximately tripled the risk of developing atrial fibrillation and ischemic stroke.

For Dr. Baranchuk, other questions that still need to be answered include whether drugs used for heart failure with preserved ejection fraction can be useful in primary atrial failure or whether specific drugs can be repositioned or developed to suppress or slow the process of fibrosis. “From generating the clinical concept, many lines of research are enabled.”

“The concept of atrial failure is very interesting and opens our eyes to treatments,” another speaker at the session, Alejo Tronconi, MD, a cardiologist and electrophysiologist at the Cardiovascular Institute of the South, Cipolletti, Argentina, said in an interview.

“It is necessary to cut circuits that have been extensively studied in heart failure models, and now we are beginning to see their participation in atrial dysfunction,” he said.

Dr. Baranchuk and Dr. Tronconi declared no relevant financial conflict of interest.

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

Atrial dysfunction, widely considered a marker or consequence of other heart diseases, is a relevant clinical entity, which is why it is justified to define atrial failure or insufficiency as “a new syndrome that all cardiologists should be aware of,” said Adrián Baranchuk, MD, PhD, professor of medicine at Queen’s University, Kingston, Ont., during the 2022 48th Argentine Congress of Cardiology in Buenos Aires.

“The atria are like the heart’s silly sisters and can fail just like the ventricle fails. Understanding their function and dysfunction helps us to understand heart failure. And as electrophysiologists and clinical cardiologists, we have to embrace this concept and understand it in depth,” Dr. Baranchuk, president-elect of the Inter-American Society of Cardiology, said in an interview.

The specialist first proposed atrial failure as an entity or syndrome in early 2020 in an article in the Journal of the American College of Cardiology. His four collaborators included the experienced Eugene Braunwald, MD, from Brigham and Women’s Hospital, Boston, and Antoni Bayés de Luna, PhD, from the department of medicine of the autonomous University of Barcelona.
 

Pathology despite function

“In many patients with heart failure, the pump function is preserved, but what causes the pathology? For the last 5-10 years, attention has been focused on the ventricle: whether it contracts poorly or whether it contracts properly and relaxes poorly. However, we have also seen patients in whom the ventricle contracts properly and relaxes properly. Where else can we look? We started looking at atrial contraction, especially the left atrium,” recalled Dr. Baranchuk.

He and his colleagues proposed the following consensus definition of atrial failure or insufficiency: any atrial dysfunction (anatomical, mechanical, electrical, and rheological, including blood homeostasis) that causes impaired function, heart symptoms, and a worsening of quality of life (or life expectancy) in the absence of significant valvular or ventricular abnormalities.

In his presentation, recorded and projected by video from Canada, Dr. Baranchuk pointed out that there are two large groups of causes of atrial failure: one that has to do with electrical disorders of atrial and interatrial contraction and another related to the progressive development of fibrosis, which gradually leads to dyssynchrony in interatrial contraction, pump failure, and impaired atrial function as a reservoir and as a conduit.

“In turn, these mechanisms trigger neurohormonal alterations that perpetuate atrial failure, so it is not just a matter of progressive fibrosis, which is very difficult to treat, but also of constant neurohormonal activation that guarantees that these phenomena never resolve,” said Dr. Baranchuk. The manifestations or end point of this cascade of events are the known ones: stroke, ischemia, and heart failure.
 

New entity necessary?

Defining atrial failure or insufficiency as a clinical entity not only restores the hierarchy of the atria in cardiac function, which was already postulated by William Harvey in 1628, but also enables new lines of research that would eventually allow timely preventive interventions.

One key is early recognition of partial or total interatrial block by analyzing the characteristics of the P wave on the electrocardiogram, which could serve to prevent progression to atrial fibrillation. Left atrial enlargement can also be detected by echocardiography.

“When the contractile impairment is severe and you are in atrial fibrillation, all that remains is to apply patches. The strategy is to correct risk factors beforehand, such as high blood pressure, sleep apnea, or high-dose alcohol consumption, as well as tirelessly searching for atrial fibrillation, with Holter electrocardiograms, continuous monitoring devices, such as Apple Watch, KardiaMobile, or an implantable loop recorder,” Dr. Baranchuk said in an interview.

Two ongoing or planned studies, ARCADIA and AMIABLE, will seek to determine whether anticoagulation in patients with elevated cardiovascular risk scores and any of these atrial disorders that have not yet led to atrial fibrillation could reduce the incidence of stroke.

The strategy has a rational basis. In a subanalysis of raw data from the NAVIGATE ESUS study in patients with embolic stroke of unknown cause, Dr. Baranchuk estimated that the presence of interatrial block was a tenfold higher predictor of the risk of experiencing a second stroke. Another 2018 observational study in which he participated found that in outpatients with heart failure, advanced interatrial block approximately tripled the risk of developing atrial fibrillation and ischemic stroke.

For Dr. Baranchuk, other questions that still need to be answered include whether drugs used for heart failure with preserved ejection fraction can be useful in primary atrial failure or whether specific drugs can be repositioned or developed to suppress or slow the process of fibrosis. “From generating the clinical concept, many lines of research are enabled.”

“The concept of atrial failure is very interesting and opens our eyes to treatments,” another speaker at the session, Alejo Tronconi, MD, a cardiologist and electrophysiologist at the Cardiovascular Institute of the South, Cipolletti, Argentina, said in an interview.

“It is necessary to cut circuits that have been extensively studied in heart failure models, and now we are beginning to see their participation in atrial dysfunction,” he said.

Dr. Baranchuk and Dr. Tronconi declared no relevant financial conflict of interest.

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

Atrial dysfunction, widely considered a marker or consequence of other heart diseases, is a relevant clinical entity, which is why it is justified to define atrial failure or insufficiency as “a new syndrome that all cardiologists should be aware of,” said Adrián Baranchuk, MD, PhD, professor of medicine at Queen’s University, Kingston, Ont., during the 2022 48th Argentine Congress of Cardiology in Buenos Aires.

“The atria are like the heart’s silly sisters and can fail just like the ventricle fails. Understanding their function and dysfunction helps us to understand heart failure. And as electrophysiologists and clinical cardiologists, we have to embrace this concept and understand it in depth,” Dr. Baranchuk, president-elect of the Inter-American Society of Cardiology, said in an interview.

The specialist first proposed atrial failure as an entity or syndrome in early 2020 in an article in the Journal of the American College of Cardiology. His four collaborators included the experienced Eugene Braunwald, MD, from Brigham and Women’s Hospital, Boston, and Antoni Bayés de Luna, PhD, from the department of medicine of the autonomous University of Barcelona.
 

Pathology despite function

“In many patients with heart failure, the pump function is preserved, but what causes the pathology? For the last 5-10 years, attention has been focused on the ventricle: whether it contracts poorly or whether it contracts properly and relaxes poorly. However, we have also seen patients in whom the ventricle contracts properly and relaxes properly. Where else can we look? We started looking at atrial contraction, especially the left atrium,” recalled Dr. Baranchuk.

He and his colleagues proposed the following consensus definition of atrial failure or insufficiency: any atrial dysfunction (anatomical, mechanical, electrical, and rheological, including blood homeostasis) that causes impaired function, heart symptoms, and a worsening of quality of life (or life expectancy) in the absence of significant valvular or ventricular abnormalities.

In his presentation, recorded and projected by video from Canada, Dr. Baranchuk pointed out that there are two large groups of causes of atrial failure: one that has to do with electrical disorders of atrial and interatrial contraction and another related to the progressive development of fibrosis, which gradually leads to dyssynchrony in interatrial contraction, pump failure, and impaired atrial function as a reservoir and as a conduit.

“In turn, these mechanisms trigger neurohormonal alterations that perpetuate atrial failure, so it is not just a matter of progressive fibrosis, which is very difficult to treat, but also of constant neurohormonal activation that guarantees that these phenomena never resolve,” said Dr. Baranchuk. The manifestations or end point of this cascade of events are the known ones: stroke, ischemia, and heart failure.
 

New entity necessary?

Defining atrial failure or insufficiency as a clinical entity not only restores the hierarchy of the atria in cardiac function, which was already postulated by William Harvey in 1628, but also enables new lines of research that would eventually allow timely preventive interventions.

One key is early recognition of partial or total interatrial block by analyzing the characteristics of the P wave on the electrocardiogram, which could serve to prevent progression to atrial fibrillation. Left atrial enlargement can also be detected by echocardiography.

“When the contractile impairment is severe and you are in atrial fibrillation, all that remains is to apply patches. The strategy is to correct risk factors beforehand, such as high blood pressure, sleep apnea, or high-dose alcohol consumption, as well as tirelessly searching for atrial fibrillation, with Holter electrocardiograms, continuous monitoring devices, such as Apple Watch, KardiaMobile, or an implantable loop recorder,” Dr. Baranchuk said in an interview.

Two ongoing or planned studies, ARCADIA and AMIABLE, will seek to determine whether anticoagulation in patients with elevated cardiovascular risk scores and any of these atrial disorders that have not yet led to atrial fibrillation could reduce the incidence of stroke.

The strategy has a rational basis. In a subanalysis of raw data from the NAVIGATE ESUS study in patients with embolic stroke of unknown cause, Dr. Baranchuk estimated that the presence of interatrial block was a tenfold higher predictor of the risk of experiencing a second stroke. Another 2018 observational study in which he participated found that in outpatients with heart failure, advanced interatrial block approximately tripled the risk of developing atrial fibrillation and ischemic stroke.

For Dr. Baranchuk, other questions that still need to be answered include whether drugs used for heart failure with preserved ejection fraction can be useful in primary atrial failure or whether specific drugs can be repositioned or developed to suppress or slow the process of fibrosis. “From generating the clinical concept, many lines of research are enabled.”

“The concept of atrial failure is very interesting and opens our eyes to treatments,” another speaker at the session, Alejo Tronconi, MD, a cardiologist and electrophysiologist at the Cardiovascular Institute of the South, Cipolletti, Argentina, said in an interview.

“It is necessary to cut circuits that have been extensively studied in heart failure models, and now we are beginning to see their participation in atrial dysfunction,” he said.

Dr. Baranchuk and Dr. Tronconi declared no relevant financial conflict of interest.

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

Despite Mark Twain’s assertion that “there are three kinds of lies: lies, damned lies, and statistics,” we’re going to dive into 20 years’ worth of data and, hopefully, come up with a few statistics that shed some light on the specialty’s workforce since Cardiology News published its first issue in February 2003.

We start with a major issue over these last 20 years: The participation of women in the specialty.

Back in July of 2002, just a few months before the first issue of Cardiology News was published, W. Bruce Fye, MD, then-president of the American College of Cardiology, wrote, “We need to do more to attract female medical graduates to our specialty because they represent almost one-half of the new doctors trained in this country. Cardiology needs to take full advantage of this large talent pool”

Data from the American Medical Association confirm that assertion: Of the nearly 20,000 postgraduate cardiologists in practice that year, only 7.8% were women. And that was at a time when more than 42% of medical school graduates were women, Dr. Fye noted, while also pointing out that “only 10% of cardiology trainees are female, and just 6% of ACC fellows are women.”

The gap between men and women has closed somewhat in the last 20 years, but the specialty continues to lag behind the profession as a whole. Women represented 16.7% of cardiologists in 2022, versus 37% of physicians overall, AMA data show. In 2019, for the first time, the majority of U.S. medical school students (50.5%) were women, according to the Association of American Medical Colleges.

A look at residency numbers from the Accreditation Council for Graduate Medical Education shows that continued slow improvement in the number of women can be expected, as 25.5% of cardiovascular disease residents were women during the 2021-2022 academic year. Only 2 of the 19 other internal medicine subspecialties were lower, and they happened to be interventional cardiology (20.1%) and clinical cardiac electrophysiology (14.5%).

When men are added to the mix, cardiovascular disease had a total of 3,320 active residents training in 268 programs in 2021-2022, making it the largest of the IM subspecialties in both respects. The resident total is up 57% since 2003, when it came in at 2,117, while programs have increased 55% from the 173 that were operating 2 decades ago. During the year in the middle (2011-2012), there were 2,521 residents in 187 programs, so a larger share of the growth has occurred in the last 10 years, the ACGME data indicate.

Despite Mark Twain’s assertion that “there are three kinds of lies: lies, damned lies, and statistics,” we’re going to dive into 20 years’ worth of data and, hopefully, come up with a few statistics that shed some light on the specialty’s workforce since Cardiology News published its first issue in February 2003.

We start with a major issue over these last 20 years: The participation of women in the specialty.

Back in July of 2002, just a few months before the first issue of Cardiology News was published, W. Bruce Fye, MD, then-president of the American College of Cardiology, wrote, “We need to do more to attract female medical graduates to our specialty because they represent almost one-half of the new doctors trained in this country. Cardiology needs to take full advantage of this large talent pool”

Data from the American Medical Association confirm that assertion: Of the nearly 20,000 postgraduate cardiologists in practice that year, only 7.8% were women. And that was at a time when more than 42% of medical school graduates were women, Dr. Fye noted, while also pointing out that “only 10% of cardiology trainees are female, and just 6% of ACC fellows are women.”

The gap between men and women has closed somewhat in the last 20 years, but the specialty continues to lag behind the profession as a whole. Women represented 16.7% of cardiologists in 2022, versus 37% of physicians overall, AMA data show. In 2019, for the first time, the majority of U.S. medical school students (50.5%) were women, according to the Association of American Medical Colleges.

A look at residency numbers from the Accreditation Council for Graduate Medical Education shows that continued slow improvement in the number of women can be expected, as 25.5% of cardiovascular disease residents were women during the 2021-2022 academic year. Only 2 of the 19 other internal medicine subspecialties were lower, and they happened to be interventional cardiology (20.1%) and clinical cardiac electrophysiology (14.5%).

When men are added to the mix, cardiovascular disease had a total of 3,320 active residents training in 268 programs in 2021-2022, making it the largest of the IM subspecialties in both respects. The resident total is up 57% since 2003, when it came in at 2,117, while programs have increased 55% from the 173 that were operating 2 decades ago. During the year in the middle (2011-2012), there were 2,521 residents in 187 programs, so a larger share of the growth has occurred in the last 10 years, the ACGME data indicate.

Despite Mark Twain’s assertion that “there are three kinds of lies: lies, damned lies, and statistics,” we’re going to dive into 20 years’ worth of data and, hopefully, come up with a few statistics that shed some light on the specialty’s workforce since Cardiology News published its first issue in February 2003.

We start with a major issue over these last 20 years: The participation of women in the specialty.

Back in July of 2002, just a few months before the first issue of Cardiology News was published, W. Bruce Fye, MD, then-president of the American College of Cardiology, wrote, “We need to do more to attract female medical graduates to our specialty because they represent almost one-half of the new doctors trained in this country. Cardiology needs to take full advantage of this large talent pool”

Data from the American Medical Association confirm that assertion: Of the nearly 20,000 postgraduate cardiologists in practice that year, only 7.8% were women. And that was at a time when more than 42% of medical school graduates were women, Dr. Fye noted, while also pointing out that “only 10% of cardiology trainees are female, and just 6% of ACC fellows are women.”

The gap between men and women has closed somewhat in the last 20 years, but the specialty continues to lag behind the profession as a whole. Women represented 16.7% of cardiologists in 2022, versus 37% of physicians overall, AMA data show. In 2019, for the first time, the majority of U.S. medical school students (50.5%) were women, according to the Association of American Medical Colleges.

A look at residency numbers from the Accreditation Council for Graduate Medical Education shows that continued slow improvement in the number of women can be expected, as 25.5% of cardiovascular disease residents were women during the 2021-2022 academic year. Only 2 of the 19 other internal medicine subspecialties were lower, and they happened to be interventional cardiology (20.1%) and clinical cardiac electrophysiology (14.5%).

When men are added to the mix, cardiovascular disease had a total of 3,320 active residents training in 268 programs in 2021-2022, making it the largest of the IM subspecialties in both respects. The resident total is up 57% since 2003, when it came in at 2,117, while programs have increased 55% from the 173 that were operating 2 decades ago. During the year in the middle (2011-2012), there were 2,521 residents in 187 programs, so a larger share of the growth has occurred in the last 10 years, the ACGME data indicate.

Replacing dual-antiplatelet therapy (DAPT) with clopidogrel alone 1 month after percutaneous intervention (PCI) offers a lower risk of bleeding with comparable protection against cardiovascular events, according to two subgroup analyses of the Japanese STOPDAPT-2 and STOPDAPT-2 ACS trials.

The objective of these two analyses was to evaluate whether there was a benefit-to-risk ratio advantage for those who entered the study with high bleeding risk or who had undergone a complex PCI. Overall, bleeding risk was reduced without a major increase in cardiovascular events regardless of subgroup, according to results published by a multicenter group of Japanese investigators.

In this substudy, like the previously published studies from which the data were drawn, the primary endpoint was a composite of cardiovascular death, myocardial infarction, definite stent thrombosis, stroke, and Thrombolysis In Myocardial Infarction bleeding (major or minor).

The proportion of patients in the 1-month and 12-month DAPT groups reaching this composite endpoint at 1 year was not significantly different among patients stratified by baseline bleeding risk or by PCI complexity, according to a multicenter group of authors led by Takeshi Kimura, MD, department of cardiovascular medicine, Kyoto University.
 

Shortened DAPT is focus of multiple trials

The new analysis, published in JACC Asia, is a follow-up to the 2019 STOPDAPT-2 trial, published in JAMA, and the 2022 STOPDAPT-2 ACS trial, published in JAMA Cardiology. The first tested 1- versus 12-month DAPT in PCI patients receiving a drug-eluting stent. The second study compared the same strategies in patients undergoing PCI to treat an acute coronary syndrome (ACS).

Both studies were conducted in Japan. DAPT consisted of the P2Y12 receptor inhibitor clopidogrel plus aspirin. The experimental arm received this regimen for 1 month followed by clopidogrel monotherapy. The control arm remained on DAPT for 12 months.

The study is potentially important because it addresses the challenge of finding “the sweet spot of antiplatelet therapy in East Asian patients,” according to the coauthors of an accompanying editorial in the same issue of JACC Asia.

Previous data suggest East Asians have a higher risk of bleeding but lower anti-ischemic benefits from DAPT therapy, explained the coauthors, Antonio Greco, MD and Davide Capodanno, MD, PhD, both from the University of Catania (Italy). They praised the effort to explore this question.

In the STOPDAPT-2 trial, the shortened DAPT regimen was associated with a significantly lower rate of a composite endpoint of cardiovascular and bleeding events than standard DAPT, meeting criteria for superiority as well as noninferiority. In the STOPDAPT-2 ACS trial, shortened DAPT failed to achieve noninferiority to standard DAPT because of an increase in cardiovascular events despite a reduction in bleeding events.

Neither of these studies specifically compared shortened to standard DAPT in patients with high bleeding risk or in patients who underwent complex PCI, which are among the most common patient groups in which to consider a modified DAPT regimen. To do this, two new substudies were performed with the combined data from 5,997 patients in the two STOPDAPT-2 trials.
 

Two candidate groups for shortened DAPT evaluated

In the first substudy, the 1,893 patients who met criteria for high bleeding risk were compared with the 4,104 who did not. In those with a high risk of bleeding, the proportion reaching a primary endpoint at 1 year was lower, but not significantly different, for those on 1-month versus standard DAPT (5.01% vs. 5.14%). This was also true in those without an elevated bleeding risk (1.90% vs. 2.02%).

In the second substudy, 999 patients who had a complex PCI, defined by such characteristics as implantation of at least three stents or chronic total occlusion in the target lesions, were compared with the 4,998 who did not. Again, the primary endpoint was lower in both those who had a complex PCI (3.15% vs. 4.07%) and those who did not (2.78% vs. 2.82%).

Not surprisingly, patients with a high bleeding risk benefited from a substantially lower risk of bleeding events on the 1-month DAPT regimen (0.66% vs. 2.27%). The cost was a higher risk of cardiovascular events (4.35% vs. 3.52%), but this difference did not reach significance. Those without an elevated bleeding risk also had a lower risk of bleeding events (0.43% vs. 0.85%) but a higher risk of cardiovascular events (1.56% vs. 1.22%). Again, differences were nonsignificant. In the substudy evaluating DAPT duration in relation to complex PCI, the rate of cardiovascular events at 1 year in those treated with short versus 12-month DAPT was nearly identical (2.53% vs. 2.52%). In the non–complex PCI patients, event rates were nonsignificantly greater on the shortened DAPT regimen (2.38% vs. 1.86%), but the bleeding rate was lower on shortened DAPT whether PCI had been complex (0.63% vs. 1.75%) or not (0.48% vs. 1.22%).

In the absence of any major signal that complex PCI benefited from longer duration DAPT, “complex PCI might not be an appropriate determinant for DAPT durations,” according to Dr. Kimura and coinvestigators.
 

Study data might not be generalizable

Dr. Greco and Dr. Capodanno pointed out that there are differences between patients and PCI practices in Japan relative to other areas of the world, limiting the generalizability of these findings even if the question is relevant.

“This is an approach that might be suggested for patients at high bleeding risk who have the characteristics of the patients enrolled in the STOPDAPT-2 trials,” Dr. Capodanno said in an interview. In his own PCI practice treating ACS patients, “I would not feel safe enough with clopidogrel monotherapy after only 1 month.”

He considers the ACS population to have a particularly “delicate bleeding-ischemia trade-off,” which is why he thinks this question is relevant and needs to be explored further in additional populations. However, he might design trials differently in his own practice setting. For example, he would at the very least be interested in testing a more potent P2Y12 inhibitor such as ticagrelor when considering a single antiplatelet agent after a limited course of DAPT.

One message from this study is that “bleeding risk trumps PCI complexity,” according to Deepak L. Bhatt, MD, who recently assumed the position of director of Mount Sinai Heart in New York. He liked the approach the investigators took to address a complex and relevant clinical issue, but he also expressed reservations about the clinical applicability of this subgroup analysis.

“We really need more data before uniformly shortening DAPT duration in all patients,” Dr. Bhatt said in an interview. He considers this a hot clinical issue that is likely to generate more trials. He hopes these will provide more definitive evidence of when and how DAPT duration can be reduced. Overall, he anticipates progress toward tailoring therapy in specific populations in order to achieve the best risk-to-benefit balance.

Dr. Kimura has financial relationships with Boston Scientific, Daiichi Sankyo, Sanofi, Terumo, and Abbott Medical Japan, which provided funding for the STOPDAPT-2 and STOPDAPT-2 ACS trials. Dr. Capodanno reported financial relationships with Amgen, Arena, Chiesi, Daiichi Sakyo, Sanofi Aventis, and Terumo. Dr. Bhatt reported financial relationships with more than 20 pharmaceutical companies, including Abbott Medical.

Replacing dual-antiplatelet therapy (DAPT) with clopidogrel alone 1 month after percutaneous intervention (PCI) offers a lower risk of bleeding with comparable protection against cardiovascular events, according to two subgroup analyses of the Japanese STOPDAPT-2 and STOPDAPT-2 ACS trials.

The objective of these two analyses was to evaluate whether there was a benefit-to-risk ratio advantage for those who entered the study with high bleeding risk or who had undergone a complex PCI. Overall, bleeding risk was reduced without a major increase in cardiovascular events regardless of subgroup, according to results published by a multicenter group of Japanese investigators.

In this substudy, like the previously published studies from which the data were drawn, the primary endpoint was a composite of cardiovascular death, myocardial infarction, definite stent thrombosis, stroke, and Thrombolysis In Myocardial Infarction bleeding (major or minor).

The proportion of patients in the 1-month and 12-month DAPT groups reaching this composite endpoint at 1 year was not significantly different among patients stratified by baseline bleeding risk or by PCI complexity, according to a multicenter group of authors led by Takeshi Kimura, MD, department of cardiovascular medicine, Kyoto University.
 

Shortened DAPT is focus of multiple trials

The new analysis, published in JACC Asia, is a follow-up to the 2019 STOPDAPT-2 trial, published in JAMA, and the 2022 STOPDAPT-2 ACS trial, published in JAMA Cardiology. The first tested 1- versus 12-month DAPT in PCI patients receiving a drug-eluting stent. The second study compared the same strategies in patients undergoing PCI to treat an acute coronary syndrome (ACS).

Both studies were conducted in Japan. DAPT consisted of the P2Y12 receptor inhibitor clopidogrel plus aspirin. The experimental arm received this regimen for 1 month followed by clopidogrel monotherapy. The control arm remained on DAPT for 12 months.

The study is potentially important because it addresses the challenge of finding “the sweet spot of antiplatelet therapy in East Asian patients,” according to the coauthors of an accompanying editorial in the same issue of JACC Asia.

Previous data suggest East Asians have a higher risk of bleeding but lower anti-ischemic benefits from DAPT therapy, explained the coauthors, Antonio Greco, MD and Davide Capodanno, MD, PhD, both from the University of Catania (Italy). They praised the effort to explore this question.

In the STOPDAPT-2 trial, the shortened DAPT regimen was associated with a significantly lower rate of a composite endpoint of cardiovascular and bleeding events than standard DAPT, meeting criteria for superiority as well as noninferiority. In the STOPDAPT-2 ACS trial, shortened DAPT failed to achieve noninferiority to standard DAPT because of an increase in cardiovascular events despite a reduction in bleeding events.

Neither of these studies specifically compared shortened to standard DAPT in patients with high bleeding risk or in patients who underwent complex PCI, which are among the most common patient groups in which to consider a modified DAPT regimen. To do this, two new substudies were performed with the combined data from 5,997 patients in the two STOPDAPT-2 trials.
 

Two candidate groups for shortened DAPT evaluated

In the first substudy, the 1,893 patients who met criteria for high bleeding risk were compared with the 4,104 who did not. In those with a high risk of bleeding, the proportion reaching a primary endpoint at 1 year was lower, but not significantly different, for those on 1-month versus standard DAPT (5.01% vs. 5.14%). This was also true in those without an elevated bleeding risk (1.90% vs. 2.02%).

In the second substudy, 999 patients who had a complex PCI, defined by such characteristics as implantation of at least three stents or chronic total occlusion in the target lesions, were compared with the 4,998 who did not. Again, the primary endpoint was lower in both those who had a complex PCI (3.15% vs. 4.07%) and those who did not (2.78% vs. 2.82%).

Not surprisingly, patients with a high bleeding risk benefited from a substantially lower risk of bleeding events on the 1-month DAPT regimen (0.66% vs. 2.27%). The cost was a higher risk of cardiovascular events (4.35% vs. 3.52%), but this difference did not reach significance. Those without an elevated bleeding risk also had a lower risk of bleeding events (0.43% vs. 0.85%) but a higher risk of cardiovascular events (1.56% vs. 1.22%). Again, differences were nonsignificant. In the substudy evaluating DAPT duration in relation to complex PCI, the rate of cardiovascular events at 1 year in those treated with short versus 12-month DAPT was nearly identical (2.53% vs. 2.52%). In the non–complex PCI patients, event rates were nonsignificantly greater on the shortened DAPT regimen (2.38% vs. 1.86%), but the bleeding rate was lower on shortened DAPT whether PCI had been complex (0.63% vs. 1.75%) or not (0.48% vs. 1.22%).

In the absence of any major signal that complex PCI benefited from longer duration DAPT, “complex PCI might not be an appropriate determinant for DAPT durations,” according to Dr. Kimura and coinvestigators.
 

Study data might not be generalizable

Dr. Greco and Dr. Capodanno pointed out that there are differences between patients and PCI practices in Japan relative to other areas of the world, limiting the generalizability of these findings even if the question is relevant.

“This is an approach that might be suggested for patients at high bleeding risk who have the characteristics of the patients enrolled in the STOPDAPT-2 trials,” Dr. Capodanno said in an interview. In his own PCI practice treating ACS patients, “I would not feel safe enough with clopidogrel monotherapy after only 1 month.”

He considers the ACS population to have a particularly “delicate bleeding-ischemia trade-off,” which is why he thinks this question is relevant and needs to be explored further in additional populations. However, he might design trials differently in his own practice setting. For example, he would at the very least be interested in testing a more potent P2Y12 inhibitor such as ticagrelor when considering a single antiplatelet agent after a limited course of DAPT.

One message from this study is that “bleeding risk trumps PCI complexity,” according to Deepak L. Bhatt, MD, who recently assumed the position of director of Mount Sinai Heart in New York. He liked the approach the investigators took to address a complex and relevant clinical issue, but he also expressed reservations about the clinical applicability of this subgroup analysis.

“We really need more data before uniformly shortening DAPT duration in all patients,” Dr. Bhatt said in an interview. He considers this a hot clinical issue that is likely to generate more trials. He hopes these will provide more definitive evidence of when and how DAPT duration can be reduced. Overall, he anticipates progress toward tailoring therapy in specific populations in order to achieve the best risk-to-benefit balance.

Dr. Kimura has financial relationships with Boston Scientific, Daiichi Sankyo, Sanofi, Terumo, and Abbott Medical Japan, which provided funding for the STOPDAPT-2 and STOPDAPT-2 ACS trials. Dr. Capodanno reported financial relationships with Amgen, Arena, Chiesi, Daiichi Sakyo, Sanofi Aventis, and Terumo. Dr. Bhatt reported financial relationships with more than 20 pharmaceutical companies, including Abbott Medical.

Replacing dual-antiplatelet therapy (DAPT) with clopidogrel alone 1 month after percutaneous intervention (PCI) offers a lower risk of bleeding with comparable protection against cardiovascular events, according to two subgroup analyses of the Japanese STOPDAPT-2 and STOPDAPT-2 ACS trials.

The objective of these two analyses was to evaluate whether there was a benefit-to-risk ratio advantage for those who entered the study with high bleeding risk or who had undergone a complex PCI. Overall, bleeding risk was reduced without a major increase in cardiovascular events regardless of subgroup, according to results published by a multicenter group of Japanese investigators.

In this substudy, like the previously published studies from which the data were drawn, the primary endpoint was a composite of cardiovascular death, myocardial infarction, definite stent thrombosis, stroke, and Thrombolysis In Myocardial Infarction bleeding (major or minor).

The proportion of patients in the 1-month and 12-month DAPT groups reaching this composite endpoint at 1 year was not significantly different among patients stratified by baseline bleeding risk or by PCI complexity, according to a multicenter group of authors led by Takeshi Kimura, MD, department of cardiovascular medicine, Kyoto University.
 

Shortened DAPT is focus of multiple trials

The new analysis, published in JACC Asia, is a follow-up to the 2019 STOPDAPT-2 trial, published in JAMA, and the 2022 STOPDAPT-2 ACS trial, published in JAMA Cardiology. The first tested 1- versus 12-month DAPT in PCI patients receiving a drug-eluting stent. The second study compared the same strategies in patients undergoing PCI to treat an acute coronary syndrome (ACS).

Both studies were conducted in Japan. DAPT consisted of the P2Y12 receptor inhibitor clopidogrel plus aspirin. The experimental arm received this regimen for 1 month followed by clopidogrel monotherapy. The control arm remained on DAPT for 12 months.

The study is potentially important because it addresses the challenge of finding “the sweet spot of antiplatelet therapy in East Asian patients,” according to the coauthors of an accompanying editorial in the same issue of JACC Asia.

Previous data suggest East Asians have a higher risk of bleeding but lower anti-ischemic benefits from DAPT therapy, explained the coauthors, Antonio Greco, MD and Davide Capodanno, MD, PhD, both from the University of Catania (Italy). They praised the effort to explore this question.

In the STOPDAPT-2 trial, the shortened DAPT regimen was associated with a significantly lower rate of a composite endpoint of cardiovascular and bleeding events than standard DAPT, meeting criteria for superiority as well as noninferiority. In the STOPDAPT-2 ACS trial, shortened DAPT failed to achieve noninferiority to standard DAPT because of an increase in cardiovascular events despite a reduction in bleeding events.

Neither of these studies specifically compared shortened to standard DAPT in patients with high bleeding risk or in patients who underwent complex PCI, which are among the most common patient groups in which to consider a modified DAPT regimen. To do this, two new substudies were performed with the combined data from 5,997 patients in the two STOPDAPT-2 trials.
 

Two candidate groups for shortened DAPT evaluated

In the first substudy, the 1,893 patients who met criteria for high bleeding risk were compared with the 4,104 who did not. In those with a high risk of bleeding, the proportion reaching a primary endpoint at 1 year was lower, but not significantly different, for those on 1-month versus standard DAPT (5.01% vs. 5.14%). This was also true in those without an elevated bleeding risk (1.90% vs. 2.02%).

In the second substudy, 999 patients who had a complex PCI, defined by such characteristics as implantation of at least three stents or chronic total occlusion in the target lesions, were compared with the 4,998 who did not. Again, the primary endpoint was lower in both those who had a complex PCI (3.15% vs. 4.07%) and those who did not (2.78% vs. 2.82%).

Not surprisingly, patients with a high bleeding risk benefited from a substantially lower risk of bleeding events on the 1-month DAPT regimen (0.66% vs. 2.27%). The cost was a higher risk of cardiovascular events (4.35% vs. 3.52%), but this difference did not reach significance. Those without an elevated bleeding risk also had a lower risk of bleeding events (0.43% vs. 0.85%) but a higher risk of cardiovascular events (1.56% vs. 1.22%). Again, differences were nonsignificant. In the substudy evaluating DAPT duration in relation to complex PCI, the rate of cardiovascular events at 1 year in those treated with short versus 12-month DAPT was nearly identical (2.53% vs. 2.52%). In the non–complex PCI patients, event rates were nonsignificantly greater on the shortened DAPT regimen (2.38% vs. 1.86%), but the bleeding rate was lower on shortened DAPT whether PCI had been complex (0.63% vs. 1.75%) or not (0.48% vs. 1.22%).

In the absence of any major signal that complex PCI benefited from longer duration DAPT, “complex PCI might not be an appropriate determinant for DAPT durations,” according to Dr. Kimura and coinvestigators.
 

Study data might not be generalizable

Dr. Greco and Dr. Capodanno pointed out that there are differences between patients and PCI practices in Japan relative to other areas of the world, limiting the generalizability of these findings even if the question is relevant.

“This is an approach that might be suggested for patients at high bleeding risk who have the characteristics of the patients enrolled in the STOPDAPT-2 trials,” Dr. Capodanno said in an interview. In his own PCI practice treating ACS patients, “I would not feel safe enough with clopidogrel monotherapy after only 1 month.”

He considers the ACS population to have a particularly “delicate bleeding-ischemia trade-off,” which is why he thinks this question is relevant and needs to be explored further in additional populations. However, he might design trials differently in his own practice setting. For example, he would at the very least be interested in testing a more potent P2Y12 inhibitor such as ticagrelor when considering a single antiplatelet agent after a limited course of DAPT.

One message from this study is that “bleeding risk trumps PCI complexity,” according to Deepak L. Bhatt, MD, who recently assumed the position of director of Mount Sinai Heart in New York. He liked the approach the investigators took to address a complex and relevant clinical issue, but he also expressed reservations about the clinical applicability of this subgroup analysis.

“We really need more data before uniformly shortening DAPT duration in all patients,” Dr. Bhatt said in an interview. He considers this a hot clinical issue that is likely to generate more trials. He hopes these will provide more definitive evidence of when and how DAPT duration can be reduced. Overall, he anticipates progress toward tailoring therapy in specific populations in order to achieve the best risk-to-benefit balance.

Dr. Kimura has financial relationships with Boston Scientific, Daiichi Sankyo, Sanofi, Terumo, and Abbott Medical Japan, which provided funding for the STOPDAPT-2 and STOPDAPT-2 ACS trials. Dr. Capodanno reported financial relationships with Amgen, Arena, Chiesi, Daiichi Sakyo, Sanofi Aventis, and Terumo. Dr. Bhatt reported financial relationships with more than 20 pharmaceutical companies, including Abbott Medical.

Oramed Pharmaceuticals’ investigational oral insulin failed to achieve its primary endpoint in a phase 3 trial, according to top-line results announced by the company.

“Therefore, Oramed expects to discontinue its oral insulin clinical activities for [type 2 diabetes],” according to a company statement.

Top-line results were negative for the phase 3, randomized, double-blind, placebo-controlled, multicenter trial, ORA-D-013-1, comparing the efficacy of the insulin product ORMD-0801 to placebo in 710 people with type 2 diabetes with inadequate glycemic control on two or three oral glucose-lowering agents.

The participants were randomized 2:2:1:1 into ORMD-0801 dosed at 8 mg once or twice daily, or placebo dosed once or twice daily. They completed a 21-day screening period, followed by a 26-week double-blind treatment period.

The product didn’t achieve the primary endpoint comparing reduction in hemoglobin A1c from baseline to 26 weeks, or the secondary endpoint of mean change in fasting plasma glucose at 26 weeks. There were no serious adverse events.

Oramed Pharmaceuticals specializes in developing oral delivery formulations of drugs currently delivered via injection. The company has offices in the United States and Israel.

Oramed CEO Nadav Kidron commented in the statement, “Today’s outcome is very disappointing, given the positive results from prior trials. Once full data from the studies are available, we expect to share relevant learnings and future plans. We thank all the patients, families, and health care professionals who participated in the trial.”

Insulin manufacturer Novo Nordisk had also been developing an oral insulin product. Successful phase 2a results were presented at the American Diabetes Association’s 2017 Scientific Sessions and full phase 2 feasibility results were published in Lancet Diabetes & Endocrinology in 2019.

However, Novo Nordisk, which manufactures the oral glucagon-like peptide-1 receptor agonist semaglutide (Rybelsus), subsequently discontinued development of their oral insulin product. According to a statement, “Initial results raised questions about truly addressing patients’ unmet needs with insulin therapy. Therefore, we discontinued this work to focus on projects that could in fact improve cardiometabolic outcomes for people living with diabetes.”

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

Oramed Pharmaceuticals’ investigational oral insulin failed to achieve its primary endpoint in a phase 3 trial, according to top-line results announced by the company.

“Therefore, Oramed expects to discontinue its oral insulin clinical activities for [type 2 diabetes],” according to a company statement.

Top-line results were negative for the phase 3, randomized, double-blind, placebo-controlled, multicenter trial, ORA-D-013-1, comparing the efficacy of the insulin product ORMD-0801 to placebo in 710 people with type 2 diabetes with inadequate glycemic control on two or three oral glucose-lowering agents.

The participants were randomized 2:2:1:1 into ORMD-0801 dosed at 8 mg once or twice daily, or placebo dosed once or twice daily. They completed a 21-day screening period, followed by a 26-week double-blind treatment period.

The product didn’t achieve the primary endpoint comparing reduction in hemoglobin A1c from baseline to 26 weeks, or the secondary endpoint of mean change in fasting plasma glucose at 26 weeks. There were no serious adverse events.

Oramed Pharmaceuticals specializes in developing oral delivery formulations of drugs currently delivered via injection. The company has offices in the United States and Israel.

Oramed CEO Nadav Kidron commented in the statement, “Today’s outcome is very disappointing, given the positive results from prior trials. Once full data from the studies are available, we expect to share relevant learnings and future plans. We thank all the patients, families, and health care professionals who participated in the trial.”

Insulin manufacturer Novo Nordisk had also been developing an oral insulin product. Successful phase 2a results were presented at the American Diabetes Association’s 2017 Scientific Sessions and full phase 2 feasibility results were published in Lancet Diabetes & Endocrinology in 2019.

However, Novo Nordisk, which manufactures the oral glucagon-like peptide-1 receptor agonist semaglutide (Rybelsus), subsequently discontinued development of their oral insulin product. According to a statement, “Initial results raised questions about truly addressing patients’ unmet needs with insulin therapy. Therefore, we discontinued this work to focus on projects that could in fact improve cardiometabolic outcomes for people living with diabetes.”

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

Oramed Pharmaceuticals’ investigational oral insulin failed to achieve its primary endpoint in a phase 3 trial, according to top-line results announced by the company.

“Therefore, Oramed expects to discontinue its oral insulin clinical activities for [type 2 diabetes],” according to a company statement.

Top-line results were negative for the phase 3, randomized, double-blind, placebo-controlled, multicenter trial, ORA-D-013-1, comparing the efficacy of the insulin product ORMD-0801 to placebo in 710 people with type 2 diabetes with inadequate glycemic control on two or three oral glucose-lowering agents.

The participants were randomized 2:2:1:1 into ORMD-0801 dosed at 8 mg once or twice daily, or placebo dosed once or twice daily. They completed a 21-day screening period, followed by a 26-week double-blind treatment period.

The product didn’t achieve the primary endpoint comparing reduction in hemoglobin A1c from baseline to 26 weeks, or the secondary endpoint of mean change in fasting plasma glucose at 26 weeks. There were no serious adverse events.

Oramed Pharmaceuticals specializes in developing oral delivery formulations of drugs currently delivered via injection. The company has offices in the United States and Israel.

Oramed CEO Nadav Kidron commented in the statement, “Today’s outcome is very disappointing, given the positive results from prior trials. Once full data from the studies are available, we expect to share relevant learnings and future plans. We thank all the patients, families, and health care professionals who participated in the trial.”

Insulin manufacturer Novo Nordisk had also been developing an oral insulin product. Successful phase 2a results were presented at the American Diabetes Association’s 2017 Scientific Sessions and full phase 2 feasibility results were published in Lancet Diabetes & Endocrinology in 2019.

However, Novo Nordisk, which manufactures the oral glucagon-like peptide-1 receptor agonist semaglutide (Rybelsus), subsequently discontinued development of their oral insulin product. According to a statement, “Initial results raised questions about truly addressing patients’ unmet needs with insulin therapy. Therefore, we discontinued this work to focus on projects that could in fact improve cardiometabolic outcomes for people living with diabetes.”

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

Atropine is often considered a first-line intervention for unstable bradycardia. Unfortunately, atropine often fails when the bradycardia is not vagally induced and is not indicated for high-level atrioventricular blocks (for example, Mobitz II and third-degree AV block).

Transvenous pacing is typically the most effective therapy for unstable bradycardia but it is invasive, takes some time to perform, and is a procedure for which many acute care physicians lack comfort and significant experience. Transcutaneous pacing (TCP), on the other hand, is fast, easy to perform, and tends to be well tolerated by most patients when they receive appropriate doses of analgesia.

Unfortunately, TCP often fails to produce electrical or, more importantly, mechanical capture. Oftentimes when capture initially fails, the electrical current is increased in hopes of gaining capture but much to the discomfort of the patient. Increased body mass index can contribute to failure to capture, but what about TCP pad position? Despite recommendations for TCP in the United States and European resuscitation guidelines for many years, until now, no studies have evaluated optimal pad position for TCP. As a result, the default position for most clinicians using TCP has been the anterior-lateral (AL) position on the chest wall.

A study published in October 2022 compared the common AL position (anterior pad placed at the right upper chest and lateral pad placed over the left lower rib cage at the mid-axillary line) with the anterior-posterior (AP) position (anterior pad placed on the left chest over the apex of the heart and the posterior pad on the left mid-back area approximating the level of the mid-portion of the heart). The AP position has become more commonly used in defibrillating arrested hearts because it more accurately sends the current through the left ventricle. The concern with the AL position, especially in patients with large body habitus, is that the vector of the current may partially or entirely miss the left ventricle.

Moayedi and colleagues hypothesized that optimal TCP should employ pad placement that is similar to that used during optimal defibrillation attempts. They conducted a study comparing AL versus AP position during TCP and published their results in two parts, which will be discussed together.

The investigators evaluated 20 patients (6 women, 14 men) who had elective cardioversion of atrial fibrillation in the electrophysiology lab (Resuscitation. 2022 Dec;181:140-6). After successful cardioversion to sinus rhythm, the cardioversion pads were removed, and two new sets of pacer pads were placed on the patients’ chests. Pads were placed in both the AL and the AP positions, as previously described. Starting at a current output of 40 mA, the output was slowly increased on one set of pads until mechanical capture was obtained at the same rate as the pacer setting for at least 10 seconds. Pacing was then discontinued, but then the process was repeated using the second set of pads. The order in which the positions were tested (that is, AL tested first vs. AP tested first) was alternated. If capture was not obtained by 140 mA (the pacer’s maximum output), failure to capture was documented. Both positions were tested in all patients except for three cases where the second position was not tested because of inadequate analgesia.

The investigators found that 8 in 19 (42%) of the AL trials and 14 in 18 (78%) of the AP trials successfully captured. For the 17 participants who completed both trials, both positions captured in 8 in 17 (47%). AP but not AL was captured in 5 in 17 (29%); AL but not AP was captured in 0 cases. Neither position captured in 4 in 17 (24%). Of note, there was no association between successful capture and body mass index, chest circumference, or chest diameter. The AP position was more successful in both women and men, compared with the AL position. The investigators also found that, among the successful trials, the AP position tended to capture at lower currents than the AL position (93 mA vs. 126 mA).
 

In summary

TCP is a potentially lifesaving intervention in the treatment of patients with unstable bradycardia. Many of us who have attempted to perform TCP on unstable patients have frequently been disappointed with the results. In retrospect, however, I can recall that each time I have attempted this procedure, it has been using pads placed in the AL position.

Now for the first time we have data indicating that the standard AL position may be suboptimal, compared with the AP position. The study by Moayedi and colleagues is small, but the results are compelling, and the AP pad placement intuitively makes more sense. By using the AP pad placement, which provides greater likelihood of electrical current passing through the left ventricle, we should expect a greater likelihood of successful capture during attempts at TCP. In addition, we may anticipate lower analgesia needs if the AP position requires less current for success. Kudos to Moayedi and colleagues for performing a novel study of a critical procedure in acute care medicine.

Amal Mattu, MD, is a professor, vice chair of education, and codirector of the emergency cardiology fellowship in the department of emergency medicine at the University of Maryland, Baltimore. He had no disclosures. A version of this article first appeared on Medscape.com.

Atropine is often considered a first-line intervention for unstable bradycardia. Unfortunately, atropine often fails when the bradycardia is not vagally induced and is not indicated for high-level atrioventricular blocks (for example, Mobitz II and third-degree AV block).

Transvenous pacing is typically the most effective therapy for unstable bradycardia but it is invasive, takes some time to perform, and is a procedure for which many acute care physicians lack comfort and significant experience. Transcutaneous pacing (TCP), on the other hand, is fast, easy to perform, and tends to be well tolerated by most patients when they receive appropriate doses of analgesia.

Unfortunately, TCP often fails to produce electrical or, more importantly, mechanical capture. Oftentimes when capture initially fails, the electrical current is increased in hopes of gaining capture but much to the discomfort of the patient. Increased body mass index can contribute to failure to capture, but what about TCP pad position? Despite recommendations for TCP in the United States and European resuscitation guidelines for many years, until now, no studies have evaluated optimal pad position for TCP. As a result, the default position for most clinicians using TCP has been the anterior-lateral (AL) position on the chest wall.

A study published in October 2022 compared the common AL position (anterior pad placed at the right upper chest and lateral pad placed over the left lower rib cage at the mid-axillary line) with the anterior-posterior (AP) position (anterior pad placed on the left chest over the apex of the heart and the posterior pad on the left mid-back area approximating the level of the mid-portion of the heart). The AP position has become more commonly used in defibrillating arrested hearts because it more accurately sends the current through the left ventricle. The concern with the AL position, especially in patients with large body habitus, is that the vector of the current may partially or entirely miss the left ventricle.

Moayedi and colleagues hypothesized that optimal TCP should employ pad placement that is similar to that used during optimal defibrillation attempts. They conducted a study comparing AL versus AP position during TCP and published their results in two parts, which will be discussed together.

The investigators evaluated 20 patients (6 women, 14 men) who had elective cardioversion of atrial fibrillation in the electrophysiology lab (Resuscitation. 2022 Dec;181:140-6). After successful cardioversion to sinus rhythm, the cardioversion pads were removed, and two new sets of pacer pads were placed on the patients’ chests. Pads were placed in both the AL and the AP positions, as previously described. Starting at a current output of 40 mA, the output was slowly increased on one set of pads until mechanical capture was obtained at the same rate as the pacer setting for at least 10 seconds. Pacing was then discontinued, but then the process was repeated using the second set of pads. The order in which the positions were tested (that is, AL tested first vs. AP tested first) was alternated. If capture was not obtained by 140 mA (the pacer’s maximum output), failure to capture was documented. Both positions were tested in all patients except for three cases where the second position was not tested because of inadequate analgesia.

The investigators found that 8 in 19 (42%) of the AL trials and 14 in 18 (78%) of the AP trials successfully captured. For the 17 participants who completed both trials, both positions captured in 8 in 17 (47%). AP but not AL was captured in 5 in 17 (29%); AL but not AP was captured in 0 cases. Neither position captured in 4 in 17 (24%). Of note, there was no association between successful capture and body mass index, chest circumference, or chest diameter. The AP position was more successful in both women and men, compared with the AL position. The investigators also found that, among the successful trials, the AP position tended to capture at lower currents than the AL position (93 mA vs. 126 mA).
 

In summary

TCP is a potentially lifesaving intervention in the treatment of patients with unstable bradycardia. Many of us who have attempted to perform TCP on unstable patients have frequently been disappointed with the results. In retrospect, however, I can recall that each time I have attempted this procedure, it has been using pads placed in the AL position.

Now for the first time we have data indicating that the standard AL position may be suboptimal, compared with the AP position. The study by Moayedi and colleagues is small, but the results are compelling, and the AP pad placement intuitively makes more sense. By using the AP pad placement, which provides greater likelihood of electrical current passing through the left ventricle, we should expect a greater likelihood of successful capture during attempts at TCP. In addition, we may anticipate lower analgesia needs if the AP position requires less current for success. Kudos to Moayedi and colleagues for performing a novel study of a critical procedure in acute care medicine.

Amal Mattu, MD, is a professor, vice chair of education, and codirector of the emergency cardiology fellowship in the department of emergency medicine at the University of Maryland, Baltimore. He had no disclosures. A version of this article first appeared on Medscape.com.

Atropine is often considered a first-line intervention for unstable bradycardia. Unfortunately, atropine often fails when the bradycardia is not vagally induced and is not indicated for high-level atrioventricular blocks (for example, Mobitz II and third-degree AV block).

Transvenous pacing is typically the most effective therapy for unstable bradycardia but it is invasive, takes some time to perform, and is a procedure for which many acute care physicians lack comfort and significant experience. Transcutaneous pacing (TCP), on the other hand, is fast, easy to perform, and tends to be well tolerated by most patients when they receive appropriate doses of analgesia.

Unfortunately, TCP often fails to produce electrical or, more importantly, mechanical capture. Oftentimes when capture initially fails, the electrical current is increased in hopes of gaining capture but much to the discomfort of the patient. Increased body mass index can contribute to failure to capture, but what about TCP pad position? Despite recommendations for TCP in the United States and European resuscitation guidelines for many years, until now, no studies have evaluated optimal pad position for TCP. As a result, the default position for most clinicians using TCP has been the anterior-lateral (AL) position on the chest wall.

A study published in October 2022 compared the common AL position (anterior pad placed at the right upper chest and lateral pad placed over the left lower rib cage at the mid-axillary line) with the anterior-posterior (AP) position (anterior pad placed on the left chest over the apex of the heart and the posterior pad on the left mid-back area approximating the level of the mid-portion of the heart). The AP position has become more commonly used in defibrillating arrested hearts because it more accurately sends the current through the left ventricle. The concern with the AL position, especially in patients with large body habitus, is that the vector of the current may partially or entirely miss the left ventricle.

Moayedi and colleagues hypothesized that optimal TCP should employ pad placement that is similar to that used during optimal defibrillation attempts. They conducted a study comparing AL versus AP position during TCP and published their results in two parts, which will be discussed together.

The investigators evaluated 20 patients (6 women, 14 men) who had elective cardioversion of atrial fibrillation in the electrophysiology lab (Resuscitation. 2022 Dec;181:140-6). After successful cardioversion to sinus rhythm, the cardioversion pads were removed, and two new sets of pacer pads were placed on the patients’ chests. Pads were placed in both the AL and the AP positions, as previously described. Starting at a current output of 40 mA, the output was slowly increased on one set of pads until mechanical capture was obtained at the same rate as the pacer setting for at least 10 seconds. Pacing was then discontinued, but then the process was repeated using the second set of pads. The order in which the positions were tested (that is, AL tested first vs. AP tested first) was alternated. If capture was not obtained by 140 mA (the pacer’s maximum output), failure to capture was documented. Both positions were tested in all patients except for three cases where the second position was not tested because of inadequate analgesia.

The investigators found that 8 in 19 (42%) of the AL trials and 14 in 18 (78%) of the AP trials successfully captured. For the 17 participants who completed both trials, both positions captured in 8 in 17 (47%). AP but not AL was captured in 5 in 17 (29%); AL but not AP was captured in 0 cases. Neither position captured in 4 in 17 (24%). Of note, there was no association between successful capture and body mass index, chest circumference, or chest diameter. The AP position was more successful in both women and men, compared with the AL position. The investigators also found that, among the successful trials, the AP position tended to capture at lower currents than the AL position (93 mA vs. 126 mA).
 

In summary

TCP is a potentially lifesaving intervention in the treatment of patients with unstable bradycardia. Many of us who have attempted to perform TCP on unstable patients have frequently been disappointed with the results. In retrospect, however, I can recall that each time I have attempted this procedure, it has been using pads placed in the AL position.

Now for the first time we have data indicating that the standard AL position may be suboptimal, compared with the AP position. The study by Moayedi and colleagues is small, but the results are compelling, and the AP pad placement intuitively makes more sense. By using the AP pad placement, which provides greater likelihood of electrical current passing through the left ventricle, we should expect a greater likelihood of successful capture during attempts at TCP. In addition, we may anticipate lower analgesia needs if the AP position requires less current for success. Kudos to Moayedi and colleagues for performing a novel study of a critical procedure in acute care medicine.

Amal Mattu, MD, is a professor, vice chair of education, and codirector of the emergency cardiology fellowship in the department of emergency medicine at the University of Maryland, Baltimore. He had no disclosures. A version of this article first appeared on Medscape.com.

It started as a mountain biking excursion with two friends. When we drove into the trailhead parking lot, we saw several emergency vehicles. Then a helicopter passed overhead. As we got on our bikes, a police officer told us there’d been an accident out on the trail and to be careful because emergency personnel were going to be bringing in the patient. So we started the ride cautiously, ready to yield to emergency medical services.

Half a mile down the trail, we encountered another police officer. He asked if we would be willing to go back to get an oxygen tank from the ambulance and carry it out to the scene. The three of us turned around, went back to the parking lot and were able to snag a tank of oxygen. We put it in a backpack and biked out again.

We found the scene about a mile down the trail. An adult male was lying on his back in the dirt after a crash. His eyes were closed and he wasn’t moving except for occasional breaths. Six emergency medical personnel huddled around him, one assisting breaths with a bag mask. I didn’t introduce myself initially. I just listened to hear what was happening.

They were debating the dose of medication to give him in order to intubate. I knew the answer to that question, so I introduced myself. They were happy to have somebody else to assist.

They already had an IV in place and quite a lot of supplies. They administered the meds and the paramedic attempted to intubate through the mouth. Within a few seconds, she pulled the intubating blade out and said, “I’m not going to be able to get this. His tongue is too big.”

I took the blade myself and kneeled at the head of the victim. I made three attempts at intubating, and each time couldn’t view the landmarks. I wasn’t sure if his tongue was too large or if there was some traumatic injury. To make it more difficult, a lot of secretions clogged the airway. The paramedics had a portable suction, which was somewhat functional, but I still couldn’t visualize the landmarks.

I started asking about alternative methods of establishing an airway. They had an i-gel, which is a supraglottic device that goes into the back of the mouth. So, we placed it. But when we attached the bag, air still wasn’t getting into the lungs.

We removed it and put the bag mask back on. Now I was worried. We were having difficulty keeping his oxygen above 90%. I examined the chest and abdomen again. I was wondering if perhaps he was having some gastric distention, which can result from prolonged bagging, but that didn’t seem to be the case.

Bagging became progressively more difficult, and the oxygen slowly trended down through the 80s. Then the 70s. Heart rate dropped below 60 beats per minute. The trajectory was obvious.

That’s when I asked if they had the tools for a surgical airway.

No one thought the question was crazy. In fact, they pulled out a scalpel from an equipment bag.

But now I had to actually do it. I knelt next to the patient, trying to palpate the front of the neck to identify the correct location to cut. I had difficulty finding the appropriate landmarks there as well. Frustrating.

I glanced at the monitor. O₂ was now in the 60s. Later the paramedic told me the heart rate was down to 30.

One of the medics looked me in the eye and said, “We’ve got to do something. The time is now.” That helped me snap out of it and act. I made my large vertical incision on the front of the victim’s neck, which of course resulted in quite a bit of bleeding.

My two friends, who were watching, later told me this was the moment the intensity of the scene really increased (it was already pretty intense for me, thanks).

Next, I made the horizontal stab incision. Then I probed with my finger, but it seems the incision hadn’t reached the trachea. I had to make the stab much deeper than I would’ve thought.

And then air bubbled out through the blood. A paramedic was ready with the ET tube in hand and she put it through the incision. We attached the bag. We had air movement into the lungs, and within minutes the oxygen came up.

Not long after, the flight paramedics from the helicopter showed up, having jogged a mile through the woods. They seemed rather surprised to find a patient with a cricothyrotomy. We filled them in on the situation. Now we had to get the patient out of the woods (literally and figuratively).

The emergency responders had a really great transport device: A litter with one big wheel underneath in the middle so we could roll the patient down the mountain bike trail over rocks relatively safely. One person’s job was to hold the tube as we went since we didn’t have suture to hold it in place.

We got back to the parking lot and loaded him into the ambulance, which drove another mile to the helicopter, which then had to take him a hundred miles to the hospital.

To be honest, I thought the prognosis was poor. I suspected he had an intercranial bleed slowly squeezing his brain (that later turned out to not be the case). Even though we had established an airway, it took us so long to get him to the ambulance.

The director of the local EMS called me that evening and said the patient had made it to the hospital. I had never been a part of anything with this intensity. I definitely lost sleep over it. Partly just from the uncertainty of not knowing what the outcome would be. But also second-guessing if I had done everything that I could have.

The story doesn’t quite end there, however.

A week later, a friend of the patient called me. He had recovered well and was going to be discharged from the hospital. He’d chosen to share the story with the media, and the local TV station was going to interview him. They had asked if I would agree to be interviewed.

After the local news story ran, it was kind of a media blitz. In came numerous media requests. But honestly, the portrayal of the story made me feel really weird. It was overly dramatized and not entirely accurate. It really didn’t sit well with me.

Friends all over the country saw the story, and here’s what they got from the coverage:

I was biking behind the patient when he crashed.

I had my own tools. Even the patient himself was told I used my own blade to make the incision.

The true story is what I just told you: A half-dozen emergency medical personnel were already there when I arrived. It was a combination of all of us – together – in the right place at the right time.

A month later, the patient and his family drove to the city where I live to take me out to lunch. It was emotional. There were plenty of tears. His wife and daughter were expressing a lot of gratitude and had some gifts for me. I was able to get his version of the story and learned some details. He had facial trauma in the past with some reconstruction. I realized that perhaps those anatomical changes affected my ability to do the intubation.

I hope to never again have to do this outside of the hospital. But I suppose I’m more prepared than ever now. I’ve reviewed my cricothyrotomy technique many times since then.

I was trained as a family doctor and did clinic and hospital medicine for several years. It was only in 2020 that I transitioned to doing emergency medicine work in a rural hospital. So, 2 years earlier, I’m not sure I would’ve been able to do what I did that day. To me, it was almost symbolic of the transition of my practice to emergency medicine.

I’m still in touch with the patient. We’ve talked about biking together. That hasn’t happened yet, but it may very well happen someday.

Jesse Coenen, MD, is an emergency medicine physician at Hayward Area Memorial Hospital in Hayward, Wisc.

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

It started as a mountain biking excursion with two friends. When we drove into the trailhead parking lot, we saw several emergency vehicles. Then a helicopter passed overhead. As we got on our bikes, a police officer told us there’d been an accident out on the trail and to be careful because emergency personnel were going to be bringing in the patient. So we started the ride cautiously, ready to yield to emergency medical services.

Half a mile down the trail, we encountered another police officer. He asked if we would be willing to go back to get an oxygen tank from the ambulance and carry it out to the scene. The three of us turned around, went back to the parking lot and were able to snag a tank of oxygen. We put it in a backpack and biked out again.

We found the scene about a mile down the trail. An adult male was lying on his back in the dirt after a crash. His eyes were closed and he wasn’t moving except for occasional breaths. Six emergency medical personnel huddled around him, one assisting breaths with a bag mask. I didn’t introduce myself initially. I just listened to hear what was happening.

They were debating the dose of medication to give him in order to intubate. I knew the answer to that question, so I introduced myself. They were happy to have somebody else to assist.

They already had an IV in place and quite a lot of supplies. They administered the meds and the paramedic attempted to intubate through the mouth. Within a few seconds, she pulled the intubating blade out and said, “I’m not going to be able to get this. His tongue is too big.”

I took the blade myself and kneeled at the head of the victim. I made three attempts at intubating, and each time couldn’t view the landmarks. I wasn’t sure if his tongue was too large or if there was some traumatic injury. To make it more difficult, a lot of secretions clogged the airway. The paramedics had a portable suction, which was somewhat functional, but I still couldn’t visualize the landmarks.

I started asking about alternative methods of establishing an airway. They had an i-gel, which is a supraglottic device that goes into the back of the mouth. So, we placed it. But when we attached the bag, air still wasn’t getting into the lungs.

We removed it and put the bag mask back on. Now I was worried. We were having difficulty keeping his oxygen above 90%. I examined the chest and abdomen again. I was wondering if perhaps he was having some gastric distention, which can result from prolonged bagging, but that didn’t seem to be the case.

Bagging became progressively more difficult, and the oxygen slowly trended down through the 80s. Then the 70s. Heart rate dropped below 60 beats per minute. The trajectory was obvious.

That’s when I asked if they had the tools for a surgical airway.

No one thought the question was crazy. In fact, they pulled out a scalpel from an equipment bag.

But now I had to actually do it. I knelt next to the patient, trying to palpate the front of the neck to identify the correct location to cut. I had difficulty finding the appropriate landmarks there as well. Frustrating.

I glanced at the monitor. O₂ was now in the 60s. Later the paramedic told me the heart rate was down to 30.

One of the medics looked me in the eye and said, “We’ve got to do something. The time is now.” That helped me snap out of it and act. I made my large vertical incision on the front of the victim’s neck, which of course resulted in quite a bit of bleeding.

My two friends, who were watching, later told me this was the moment the intensity of the scene really increased (it was already pretty intense for me, thanks).

Next, I made the horizontal stab incision. Then I probed with my finger, but it seems the incision hadn’t reached the trachea. I had to make the stab much deeper than I would’ve thought.

And then air bubbled out through the blood. A paramedic was ready with the ET tube in hand and she put it through the incision. We attached the bag. We had air movement into the lungs, and within minutes the oxygen came up.

Not long after, the flight paramedics from the helicopter showed up, having jogged a mile through the woods. They seemed rather surprised to find a patient with a cricothyrotomy. We filled them in on the situation. Now we had to get the patient out of the woods (literally and figuratively).

The emergency responders had a really great transport device: A litter with one big wheel underneath in the middle so we could roll the patient down the mountain bike trail over rocks relatively safely. One person’s job was to hold the tube as we went since we didn’t have suture to hold it in place.

We got back to the parking lot and loaded him into the ambulance, which drove another mile to the helicopter, which then had to take him a hundred miles to the hospital.

To be honest, I thought the prognosis was poor. I suspected he had an intercranial bleed slowly squeezing his brain (that later turned out to not be the case). Even though we had established an airway, it took us so long to get him to the ambulance.

The director of the local EMS called me that evening and said the patient had made it to the hospital. I had never been a part of anything with this intensity. I definitely lost sleep over it. Partly just from the uncertainty of not knowing what the outcome would be. But also second-guessing if I had done everything that I could have.

The story doesn’t quite end there, however.

A week later, a friend of the patient called me. He had recovered well and was going to be discharged from the hospital. He’d chosen to share the story with the media, and the local TV station was going to interview him. They had asked if I would agree to be interviewed.

After the local news story ran, it was kind of a media blitz. In came numerous media requests. But honestly, the portrayal of the story made me feel really weird. It was overly dramatized and not entirely accurate. It really didn’t sit well with me.

Friends all over the country saw the story, and here’s what they got from the coverage:

I was biking behind the patient when he crashed.

I had my own tools. Even the patient himself was told I used my own blade to make the incision.

The true story is what I just told you: A half-dozen emergency medical personnel were already there when I arrived. It was a combination of all of us – together – in the right place at the right time.

A month later, the patient and his family drove to the city where I live to take me out to lunch. It was emotional. There were plenty of tears. His wife and daughter were expressing a lot of gratitude and had some gifts for me. I was able to get his version of the story and learned some details. He had facial trauma in the past with some reconstruction. I realized that perhaps those anatomical changes affected my ability to do the intubation.

I hope to never again have to do this outside of the hospital. But I suppose I’m more prepared than ever now. I’ve reviewed my cricothyrotomy technique many times since then.

I was trained as a family doctor and did clinic and hospital medicine for several years. It was only in 2020 that I transitioned to doing emergency medicine work in a rural hospital. So, 2 years earlier, I’m not sure I would’ve been able to do what I did that day. To me, it was almost symbolic of the transition of my practice to emergency medicine.

I’m still in touch with the patient. We’ve talked about biking together. That hasn’t happened yet, but it may very well happen someday.

Jesse Coenen, MD, is an emergency medicine physician at Hayward Area Memorial Hospital in Hayward, Wisc.

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

It started as a mountain biking excursion with two friends. When we drove into the trailhead parking lot, we saw several emergency vehicles. Then a helicopter passed overhead. As we got on our bikes, a police officer told us there’d been an accident out on the trail and to be careful because emergency personnel were going to be bringing in the patient. So we started the ride cautiously, ready to yield to emergency medical services.

Half a mile down the trail, we encountered another police officer. He asked if we would be willing to go back to get an oxygen tank from the ambulance and carry it out to the scene. The three of us turned around, went back to the parking lot and were able to snag a tank of oxygen. We put it in a backpack and biked out again.

We found the scene about a mile down the trail. An adult male was lying on his back in the dirt after a crash. His eyes were closed and he wasn’t moving except for occasional breaths. Six emergency medical personnel huddled around him, one assisting breaths with a bag mask. I didn’t introduce myself initially. I just listened to hear what was happening.

They were debating the dose of medication to give him in order to intubate. I knew the answer to that question, so I introduced myself. They were happy to have somebody else to assist.

They already had an IV in place and quite a lot of supplies. They administered the meds and the paramedic attempted to intubate through the mouth. Within a few seconds, she pulled the intubating blade out and said, “I’m not going to be able to get this. His tongue is too big.”

I took the blade myself and kneeled at the head of the victim. I made three attempts at intubating, and each time couldn’t view the landmarks. I wasn’t sure if his tongue was too large or if there was some traumatic injury. To make it more difficult, a lot of secretions clogged the airway. The paramedics had a portable suction, which was somewhat functional, but I still couldn’t visualize the landmarks.

I started asking about alternative methods of establishing an airway. They had an i-gel, which is a supraglottic device that goes into the back of the mouth. So, we placed it. But when we attached the bag, air still wasn’t getting into the lungs.

We removed it and put the bag mask back on. Now I was worried. We were having difficulty keeping his oxygen above 90%. I examined the chest and abdomen again. I was wondering if perhaps he was having some gastric distention, which can result from prolonged bagging, but that didn’t seem to be the case.

Bagging became progressively more difficult, and the oxygen slowly trended down through the 80s. Then the 70s. Heart rate dropped below 60 beats per minute. The trajectory was obvious.

That’s when I asked if they had the tools for a surgical airway.

No one thought the question was crazy. In fact, they pulled out a scalpel from an equipment bag.

But now I had to actually do it. I knelt next to the patient, trying to palpate the front of the neck to identify the correct location to cut. I had difficulty finding the appropriate landmarks there as well. Frustrating.

I glanced at the monitor. O₂ was now in the 60s. Later the paramedic told me the heart rate was down to 30.

One of the medics looked me in the eye and said, “We’ve got to do something. The time is now.” That helped me snap out of it and act. I made my large vertical incision on the front of the victim’s neck, which of course resulted in quite a bit of bleeding.

My two friends, who were watching, later told me this was the moment the intensity of the scene really increased (it was already pretty intense for me, thanks).

Next, I made the horizontal stab incision. Then I probed with my finger, but it seems the incision hadn’t reached the trachea. I had to make the stab much deeper than I would’ve thought.

And then air bubbled out through the blood. A paramedic was ready with the ET tube in hand and she put it through the incision. We attached the bag. We had air movement into the lungs, and within minutes the oxygen came up.

Not long after, the flight paramedics from the helicopter showed up, having jogged a mile through the woods. They seemed rather surprised to find a patient with a cricothyrotomy. We filled them in on the situation. Now we had to get the patient out of the woods (literally and figuratively).

The emergency responders had a really great transport device: A litter with one big wheel underneath in the middle so we could roll the patient down the mountain bike trail over rocks relatively safely. One person’s job was to hold the tube as we went since we didn’t have suture to hold it in place.

We got back to the parking lot and loaded him into the ambulance, which drove another mile to the helicopter, which then had to take him a hundred miles to the hospital.

To be honest, I thought the prognosis was poor. I suspected he had an intercranial bleed slowly squeezing his brain (that later turned out to not be the case). Even though we had established an airway, it took us so long to get him to the ambulance.

The director of the local EMS called me that evening and said the patient had made it to the hospital. I had never been a part of anything with this intensity. I definitely lost sleep over it. Partly just from the uncertainty of not knowing what the outcome would be. But also second-guessing if I had done everything that I could have.

The story doesn’t quite end there, however.

A week later, a friend of the patient called me. He had recovered well and was going to be discharged from the hospital. He’d chosen to share the story with the media, and the local TV station was going to interview him. They had asked if I would agree to be interviewed.

After the local news story ran, it was kind of a media blitz. In came numerous media requests. But honestly, the portrayal of the story made me feel really weird. It was overly dramatized and not entirely accurate. It really didn’t sit well with me.

Friends all over the country saw the story, and here’s what they got from the coverage:

I was biking behind the patient when he crashed.

I had my own tools. Even the patient himself was told I used my own blade to make the incision.

The true story is what I just told you: A half-dozen emergency medical personnel were already there when I arrived. It was a combination of all of us – together – in the right place at the right time.

A month later, the patient and his family drove to the city where I live to take me out to lunch. It was emotional. There were plenty of tears. His wife and daughter were expressing a lot of gratitude and had some gifts for me. I was able to get his version of the story and learned some details. He had facial trauma in the past with some reconstruction. I realized that perhaps those anatomical changes affected my ability to do the intubation.

I hope to never again have to do this outside of the hospital. But I suppose I’m more prepared than ever now. I’ve reviewed my cricothyrotomy technique many times since then.

I was trained as a family doctor and did clinic and hospital medicine for several years. It was only in 2020 that I transitioned to doing emergency medicine work in a rural hospital. So, 2 years earlier, I’m not sure I would’ve been able to do what I did that day. To me, it was almost symbolic of the transition of my practice to emergency medicine.

I’m still in touch with the patient. We’ve talked about biking together. That hasn’t happened yet, but it may very well happen someday.

Jesse Coenen, MD, is an emergency medicine physician at Hayward Area Memorial Hospital in Hayward, Wisc.

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

Interventional cardiologist Jeffrey Tauth, MD, of Hot Springs, Ark., has agreed to pay $900,000 to resolve allegations that he submitted claims to Medicare for inserting medically unnecessary cardiac stents, in violation of the False Claims Act.

As part of the settlement, Dr. Tauth will enter into an integrity agreement with the U.S. Department of Health & Human Services, according to a news release from Henry Leventis, U.S. attorney for the Middle District of Tennessee.

“Health care fraud is a top priority of this office. We will aggressively pursue all those who are involved in fraud against government programs,” Mr. Leventis said.

Dr. Tauth formerly treated patients at National Park Medical Center (NPMC) in Hot Springs. The alleged false claims were submitted from September 2013 through August 2019.

The settlement with Dr. Tauth, aged 60, follows a November 2019 voluntary disclosure of the alleged false claims by Brentwood, Tenn.–based Lifepoint Health, which acquired NPMC and Hot Springs Cardiology Associates in November 2018.

NPMC and Hot Springs Cardiology entered into a settlement in October 2020 for the alleged violations and agreed to pay roughly $14.6 million, which includes over $9 million in restitution, according to the news release.

NPMC CEO Scott Smith said NPMC is “committed to maintaining high standards of integrity, legal compliance, and quality care for our patients. We regularly monitor our processes, procedures, and reporting and actively self-report concerns to regulators to ensure we are upholding these standards across our organization.”

“We are proud that our hospital took the appropriate steps to promptly self-report and finalize a settlement with the government for a swift resolution more than 2 years ago,” Mr. Smith said.

Dr. Tauth, however, maintains that the allegations made by NPMC are false.

“I am pleased to have reached a settlement agreement with the Department of Justice regarding allegations brought to them by my former employer, National Park Medical Center,” he said in a statement.

“The settlement agreement specifically states that it is not ‘an admission of liability’ by me, and I remain steadfast in my position that the allegations made by my former employer are false and without merit,” Dr. Tauth added.

He further stated that he has “chosen to enter into the settlement agreement because the legal process initiated by National Park’s allegations has been emotionally and financially damaging to me and my family in the extreme, and a settlement puts an end to the delays, uncertainties, inconveniences, and expenses of protracted litigation. Settlement is in the best interests of my family, my patients, and my medical practice.”

Dr. Tauth said he is “extremely grateful for the support I have received from my patients, medical staff, colleagues, friends, and family during this difficult time, and I look forward to providing high-quality cardiac care in the greater Hot Springs community for many years to come.”

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

Interventional cardiologist Jeffrey Tauth, MD, of Hot Springs, Ark., has agreed to pay $900,000 to resolve allegations that he submitted claims to Medicare for inserting medically unnecessary cardiac stents, in violation of the False Claims Act.

As part of the settlement, Dr. Tauth will enter into an integrity agreement with the U.S. Department of Health & Human Services, according to a news release from Henry Leventis, U.S. attorney for the Middle District of Tennessee.

“Health care fraud is a top priority of this office. We will aggressively pursue all those who are involved in fraud against government programs,” Mr. Leventis said.

Dr. Tauth formerly treated patients at National Park Medical Center (NPMC) in Hot Springs. The alleged false claims were submitted from September 2013 through August 2019.

The settlement with Dr. Tauth, aged 60, follows a November 2019 voluntary disclosure of the alleged false claims by Brentwood, Tenn.–based Lifepoint Health, which acquired NPMC and Hot Springs Cardiology Associates in November 2018.

NPMC and Hot Springs Cardiology entered into a settlement in October 2020 for the alleged violations and agreed to pay roughly $14.6 million, which includes over $9 million in restitution, according to the news release.

NPMC CEO Scott Smith said NPMC is “committed to maintaining high standards of integrity, legal compliance, and quality care for our patients. We regularly monitor our processes, procedures, and reporting and actively self-report concerns to regulators to ensure we are upholding these standards across our organization.”

“We are proud that our hospital took the appropriate steps to promptly self-report and finalize a settlement with the government for a swift resolution more than 2 years ago,” Mr. Smith said.

Dr. Tauth, however, maintains that the allegations made by NPMC are false.

“I am pleased to have reached a settlement agreement with the Department of Justice regarding allegations brought to them by my former employer, National Park Medical Center,” he said in a statement.

“The settlement agreement specifically states that it is not ‘an admission of liability’ by me, and I remain steadfast in my position that the allegations made by my former employer are false and without merit,” Dr. Tauth added.

He further stated that he has “chosen to enter into the settlement agreement because the legal process initiated by National Park’s allegations has been emotionally and financially damaging to me and my family in the extreme, and a settlement puts an end to the delays, uncertainties, inconveniences, and expenses of protracted litigation. Settlement is in the best interests of my family, my patients, and my medical practice.”

Dr. Tauth said he is “extremely grateful for the support I have received from my patients, medical staff, colleagues, friends, and family during this difficult time, and I look forward to providing high-quality cardiac care in the greater Hot Springs community for many years to come.”

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

Interventional cardiologist Jeffrey Tauth, MD, of Hot Springs, Ark., has agreed to pay $900,000 to resolve allegations that he submitted claims to Medicare for inserting medically unnecessary cardiac stents, in violation of the False Claims Act.

As part of the settlement, Dr. Tauth will enter into an integrity agreement with the U.S. Department of Health & Human Services, according to a news release from Henry Leventis, U.S. attorney for the Middle District of Tennessee.

“Health care fraud is a top priority of this office. We will aggressively pursue all those who are involved in fraud against government programs,” Mr. Leventis said.

Dr. Tauth formerly treated patients at National Park Medical Center (NPMC) in Hot Springs. The alleged false claims were submitted from September 2013 through August 2019.

The settlement with Dr. Tauth, aged 60, follows a November 2019 voluntary disclosure of the alleged false claims by Brentwood, Tenn.–based Lifepoint Health, which acquired NPMC and Hot Springs Cardiology Associates in November 2018.

NPMC and Hot Springs Cardiology entered into a settlement in October 2020 for the alleged violations and agreed to pay roughly $14.6 million, which includes over $9 million in restitution, according to the news release.

NPMC CEO Scott Smith said NPMC is “committed to maintaining high standards of integrity, legal compliance, and quality care for our patients. We regularly monitor our processes, procedures, and reporting and actively self-report concerns to regulators to ensure we are upholding these standards across our organization.”

“We are proud that our hospital took the appropriate steps to promptly self-report and finalize a settlement with the government for a swift resolution more than 2 years ago,” Mr. Smith said.

Dr. Tauth, however, maintains that the allegations made by NPMC are false.

“I am pleased to have reached a settlement agreement with the Department of Justice regarding allegations brought to them by my former employer, National Park Medical Center,” he said in a statement.

“The settlement agreement specifically states that it is not ‘an admission of liability’ by me, and I remain steadfast in my position that the allegations made by my former employer are false and without merit,” Dr. Tauth added.

He further stated that he has “chosen to enter into the settlement agreement because the legal process initiated by National Park’s allegations has been emotionally and financially damaging to me and my family in the extreme, and a settlement puts an end to the delays, uncertainties, inconveniences, and expenses of protracted litigation. Settlement is in the best interests of my family, my patients, and my medical practice.”

Dr. Tauth said he is “extremely grateful for the support I have received from my patients, medical staff, colleagues, friends, and family during this difficult time, and I look forward to providing high-quality cardiac care in the greater Hot Springs community for many years to come.”

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