MDedge Emergency Medicine

The U.S. Occupational Safety and Health Administration issued its long-awaited Emergency Temporary Standard (ETS) for COVID-19 June 10, surprising many by including only health care workers in the new emergency workplace safety rules.

“The ETS is an overdue step toward protecting health care workers, especially those working in long-term care facilities and home health care who are at greatly increased risk of infection,” said George Washington University, Washington, professor and former Obama administration Assistant Secretary of Labor David Michaels, PhD, MPH. “OSHA’s failure to issue a COVID-specific standard in other high-risk industries, like meat and poultry processing, corrections, homeless shelters, and retail establishments is disappointing. If exposure is not controlled in these workplaces, they will continue to be important drivers of infections.”

With the new regulations in place, about 10.3 million health care workers at hospitals, nursing homes, and assisted living facilities, as well as emergency responders and home health care workers, should be guaranteed protection standards that replace former guidance.

The new protections include supplying personal protective equipment and ensuring proper usage (for example, mandatory seal checks on respirators); screening everyone who enters the facility for COVID-19; ensuring proper ventilation; and establishing physical distancing requirements (6 feet) for unvaccinated workers. It also requires employers to give workers time off for vaccination. An antiretaliation clause could shield workers who complain about unsafe conditions.

“The science tells us that health care workers, particularly those who come into regular contact with the virus, are most at risk at this point in the pandemic,” Labor Secretary Marty Walsh said on a press call. “So following an extensive review of the science and data, OSHA determined that a health care–specific safety requirement will make the biggest impact.”

But questions remain, said James Brudney, JD, a professor at Fordham Law School in New York and former chief counsel of the U.S. Senate Subcommittee on Labor. The standard doesn’t amplify or address existing rules regarding a right to refuse unsafe work, for example, so employees may still feel they are risking their jobs to complain, despite the antiretaliation clause.

And although vaccinated employees don’t have to adhere to the same distancing and masking standards in many instances, the standard doesn’t spell out how employers should determine their workers’ vaccination status – instead leaving that determination to employers through their own policies and procedures. (California’s state OSHA office rules specify the mechanism for documentation of vaccination.)

The Trump administration did not issue an ETS, saying OSHA’s general duty clause sufficed. President Joe Biden took the opposite approach, calling for an investigation into an ETS on his first day in office. But the process took months longer than promised.

“I know it’s been a long time coming,” Mr. Walsh acknowledged. “Our health care workers from the very beginning have been put at risk.

While health care unions had asked for mandated safety standards sooner, National Nurses United, the country’s largest labor union for registered nurses, still welcomed the rules.

“An ETS is a major step toward requiring accountability for hospitals who consistently put their budget goals and profits over our health and safety,” Zenei Triunfo-Cortez, RN, one of NNU’s three presidents, said in a statement June 9 anticipating the publication of the rules.

The rules do not apply to retail pharmacies, ambulatory care settings that screen nonemployees for COVID-19, or certain other settings in which all employees are vaccinated and people with suspected or confirmed COVID-19 cannot enter.

The agency said it will work with states that have already issued local regulations, including two states that issued temporary standards of their own, Virginia and California.

Employers will have 2 weeks to comply with most of the regulations after they’re published in the Federal Register. The standards will expire in 6 months but could then become permanent, as Virginia’s did in January.

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

The U.S. Occupational Safety and Health Administration issued its long-awaited Emergency Temporary Standard (ETS) for COVID-19 June 10, surprising many by including only health care workers in the new emergency workplace safety rules.

“The ETS is an overdue step toward protecting health care workers, especially those working in long-term care facilities and home health care who are at greatly increased risk of infection,” said George Washington University, Washington, professor and former Obama administration Assistant Secretary of Labor David Michaels, PhD, MPH. “OSHA’s failure to issue a COVID-specific standard in other high-risk industries, like meat and poultry processing, corrections, homeless shelters, and retail establishments is disappointing. If exposure is not controlled in these workplaces, they will continue to be important drivers of infections.”

With the new regulations in place, about 10.3 million health care workers at hospitals, nursing homes, and assisted living facilities, as well as emergency responders and home health care workers, should be guaranteed protection standards that replace former guidance.

The new protections include supplying personal protective equipment and ensuring proper usage (for example, mandatory seal checks on respirators); screening everyone who enters the facility for COVID-19; ensuring proper ventilation; and establishing physical distancing requirements (6 feet) for unvaccinated workers. It also requires employers to give workers time off for vaccination. An antiretaliation clause could shield workers who complain about unsafe conditions.

“The science tells us that health care workers, particularly those who come into regular contact with the virus, are most at risk at this point in the pandemic,” Labor Secretary Marty Walsh said on a press call. “So following an extensive review of the science and data, OSHA determined that a health care–specific safety requirement will make the biggest impact.”

But questions remain, said James Brudney, JD, a professor at Fordham Law School in New York and former chief counsel of the U.S. Senate Subcommittee on Labor. The standard doesn’t amplify or address existing rules regarding a right to refuse unsafe work, for example, so employees may still feel they are risking their jobs to complain, despite the antiretaliation clause.

And although vaccinated employees don’t have to adhere to the same distancing and masking standards in many instances, the standard doesn’t spell out how employers should determine their workers’ vaccination status – instead leaving that determination to employers through their own policies and procedures. (California’s state OSHA office rules specify the mechanism for documentation of vaccination.)

The Trump administration did not issue an ETS, saying OSHA’s general duty clause sufficed. President Joe Biden took the opposite approach, calling for an investigation into an ETS on his first day in office. But the process took months longer than promised.

“I know it’s been a long time coming,” Mr. Walsh acknowledged. “Our health care workers from the very beginning have been put at risk.

While health care unions had asked for mandated safety standards sooner, National Nurses United, the country’s largest labor union for registered nurses, still welcomed the rules.

“An ETS is a major step toward requiring accountability for hospitals who consistently put their budget goals and profits over our health and safety,” Zenei Triunfo-Cortez, RN, one of NNU’s three presidents, said in a statement June 9 anticipating the publication of the rules.

The rules do not apply to retail pharmacies, ambulatory care settings that screen nonemployees for COVID-19, or certain other settings in which all employees are vaccinated and people with suspected or confirmed COVID-19 cannot enter.

The agency said it will work with states that have already issued local regulations, including two states that issued temporary standards of their own, Virginia and California.

Employers will have 2 weeks to comply with most of the regulations after they’re published in the Federal Register. The standards will expire in 6 months but could then become permanent, as Virginia’s did in January.

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

The U.S. Occupational Safety and Health Administration issued its long-awaited Emergency Temporary Standard (ETS) for COVID-19 June 10, surprising many by including only health care workers in the new emergency workplace safety rules.

“The ETS is an overdue step toward protecting health care workers, especially those working in long-term care facilities and home health care who are at greatly increased risk of infection,” said George Washington University, Washington, professor and former Obama administration Assistant Secretary of Labor David Michaels, PhD, MPH. “OSHA’s failure to issue a COVID-specific standard in other high-risk industries, like meat and poultry processing, corrections, homeless shelters, and retail establishments is disappointing. If exposure is not controlled in these workplaces, they will continue to be important drivers of infections.”

With the new regulations in place, about 10.3 million health care workers at hospitals, nursing homes, and assisted living facilities, as well as emergency responders and home health care workers, should be guaranteed protection standards that replace former guidance.

The new protections include supplying personal protective equipment and ensuring proper usage (for example, mandatory seal checks on respirators); screening everyone who enters the facility for COVID-19; ensuring proper ventilation; and establishing physical distancing requirements (6 feet) for unvaccinated workers. It also requires employers to give workers time off for vaccination. An antiretaliation clause could shield workers who complain about unsafe conditions.

“The science tells us that health care workers, particularly those who come into regular contact with the virus, are most at risk at this point in the pandemic,” Labor Secretary Marty Walsh said on a press call. “So following an extensive review of the science and data, OSHA determined that a health care–specific safety requirement will make the biggest impact.”

But questions remain, said James Brudney, JD, a professor at Fordham Law School in New York and former chief counsel of the U.S. Senate Subcommittee on Labor. The standard doesn’t amplify or address existing rules regarding a right to refuse unsafe work, for example, so employees may still feel they are risking their jobs to complain, despite the antiretaliation clause.

And although vaccinated employees don’t have to adhere to the same distancing and masking standards in many instances, the standard doesn’t spell out how employers should determine their workers’ vaccination status – instead leaving that determination to employers through their own policies and procedures. (California’s state OSHA office rules specify the mechanism for documentation of vaccination.)

The Trump administration did not issue an ETS, saying OSHA’s general duty clause sufficed. President Joe Biden took the opposite approach, calling for an investigation into an ETS on his first day in office. But the process took months longer than promised.

“I know it’s been a long time coming,” Mr. Walsh acknowledged. “Our health care workers from the very beginning have been put at risk.

While health care unions had asked for mandated safety standards sooner, National Nurses United, the country’s largest labor union for registered nurses, still welcomed the rules.

“An ETS is a major step toward requiring accountability for hospitals who consistently put their budget goals and profits over our health and safety,” Zenei Triunfo-Cortez, RN, one of NNU’s three presidents, said in a statement June 9 anticipating the publication of the rules.

The rules do not apply to retail pharmacies, ambulatory care settings that screen nonemployees for COVID-19, or certain other settings in which all employees are vaccinated and people with suspected or confirmed COVID-19 cannot enter.

The agency said it will work with states that have already issued local regulations, including two states that issued temporary standards of their own, Virginia and California.

Employers will have 2 weeks to comply with most of the regulations after they’re published in the Federal Register. The standards will expire in 6 months but could then become permanent, as Virginia’s did in January.

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

Three or more weeks of oral anticoagulation (OAC) sometimes isn’t up to the job of clearing any potentially embolic left atrial (LA) thrombi before procedures like cardioversion or catheter ablation in patients with atrial fibrillation (AF). Such OAC-defiant LA thrombi aren’t common, nor are they rare enough to ignore, suggests a new meta-analysis that might also have identified features that predispose to them.

Such predictors of LA clots that persist despite OAC could potentially guide selective use of transesophageal echocardiography (TEE) instead of more routine policies to either use or not use TEE for thrombus rule-out before rhythm-control procedures, researchers propose.

Their prevalence was about 2.7% among the study’s more than 14,000 patients who received at least 3 weeks of OAC with either vitamin K antagonists (VKA) or direct oral anticoagulants (DOAC) before undergoing TEE.

But OAC-resistant LA thrombi were two- to four-times as common in patients with than without certain features, including AF other than paroxysmal and higher CHADS2 and CHA2DS2-VASc stroke risk-stratification scores.

“TEE imaging in select patients at an elevated risk of LA thrombus, despite anticoagulation status, may be a reasonable approach to minimize the risk of thromboembolic complications following cardioversion or catheter ablation,” propose the study’s authors, led by Antony Lurie, BMSC, Population Health Research Institute, Hamilton, Ont. Their report was published in the June 15 issue of the Journal of the American College of Cardiology.

Guidelines don’t encourage TEE before cardioversion in patients who have been on OAC for at least 3 weeks, the group notes, and policies on TEE use before AF ablation vary widely regardless of anticoagulation status.

The current study suggests that 3 weeks of OAC isn’t enough for a substantial number of patients, who might be put at thromboembolic risk if TEE were to be skipped before rhythm-control procedures.

Conversely, many patients unlikely to have LA thrombi get preprocedure TEE anyway. That can happen “irrespective of how long they’ve been anticoagulated, their pattern of atrial fibrillation, or their stroke risk,” senior author Jorge A. Wong, MD, MPH, Population Health Research Institute and McMaster University, Hamilton, Ont., told this news organization.

But “TEE is an invasive imaging modality, so it is associated with small element of risk.” The current study, Dr. Wong said, points to potential risk-stratification tools clinicians might use to guide more selective TEE screening.

“At sites where TEEs are done all the time for patients undergoing ablation, one could use several of these risk markers to perhaps tailor use of TEE in individuals,” Dr. Wong said. “For example, in people with paroxysmal atrial fibrillation, we found that the risk of left atrial appendage clot was approximately 1% or less.” Screening by TEE might reasonably be avoided in such patients.

“Fortunately, continued oral anticoagulation already yields low peri-procedural stroke rates,” observes an accompanying editorial from Paulus Kirchhof, MD, and Christoph Sinning, MD, from the University Heart & Vascular Center and German Centre of Cardiovascular Research, Hamburg.

“Based on this new analysis of existing data, a risk-based use of TEE imaging in anticoagulated patients could enable further improvement in the safe delivery of rhythm control interventions in patients with AF,” the editorialists agree.

The meta-analysis covered 10 prospective and 25 retrospective studies with a total of 14,653 patients that reported whether LA thrombus was present in patients with AF or atrial flutter (AFL) who underwent TEE after at least 3 weeks of VKA or DOAC therapy. Reports for 30 of the studies identified patients by rhythm-control procedure, and the remaining five didn’t specify TEE indications.

The weighted mean prevalence of LA thrombus at TEE was 2.73% (95% confidence interval, 1.95%-3.80%). The finding was not significantly changed in separate sensitivity analyses, the report says, including one limited to studies with low risk of bias and others excluding patients with valvular AF, interrupted OAC, heparin bridging, or subtherapeutic anticoagulation, respectively.

Patients treated with VKA and DOACs showed similar prevalences of LA thrombi, with means of 2.80% and 3.12%, respectively (P = .674). The prevalence was significantly higher in patients:

• with nonparoxysmal than with paroxysmal AF/AFL (4.81% vs. 1.03%; P < .001)
• undergoing cardioversion than ablation (5.55% vs. 1.65; P < .001)
• with CHA2DS2-VASc scores of at least 3 than with scores of 2 or less (6.31% vs. 1.06%; P < .001).

A limitation of the study, observe Dr. Kirchhof and Dr. Sinning, “is that all patients had a clinical indication for a TEE, which might be a selection bias. When a thrombus was found on TEE, clinical judgment led to postponing of the procedure,” thereby avoiding potential thromboembolism.

“Thus, the paper cannot demonstrate that presence of a thrombus on TEE is related to peri-procedural ischemic stroke,” they write.

The literature puts the risk for stroke or systemic embolism at well under 1% for patients anticoagulated with either VKA or DOACs for at least 3 weeks prior to cardioversion, in contrast to the nearly 3% prevalence of LA appendage thrombus by TEE in the current analysis, Dr. Wong observed.

“So we’re seeing a lot more left atrial appendage thrombus than we would see stroke,” but there wasn’t a way to determine whether that increases the stroke risk, he agreed.Dr. Wong, Dr. Lurie, and the other authors report no relevant conflicts. Dr. Kirchhof discloses receiving partial support “from several drug and device companies active in atrial fibrillation” and to being listed as inventor on two AF-related patents held by the University of Birmingham. Dr. Sinning reports no relevant relationships. 

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

Three or more weeks of oral anticoagulation (OAC) sometimes isn’t up to the job of clearing any potentially embolic left atrial (LA) thrombi before procedures like cardioversion or catheter ablation in patients with atrial fibrillation (AF). Such OAC-defiant LA thrombi aren’t common, nor are they rare enough to ignore, suggests a new meta-analysis that might also have identified features that predispose to them.

Such predictors of LA clots that persist despite OAC could potentially guide selective use of transesophageal echocardiography (TEE) instead of more routine policies to either use or not use TEE for thrombus rule-out before rhythm-control procedures, researchers propose.

Their prevalence was about 2.7% among the study’s more than 14,000 patients who received at least 3 weeks of OAC with either vitamin K antagonists (VKA) or direct oral anticoagulants (DOAC) before undergoing TEE.

But OAC-resistant LA thrombi were two- to four-times as common in patients with than without certain features, including AF other than paroxysmal and higher CHADS2 and CHA2DS2-VASc stroke risk-stratification scores.

“TEE imaging in select patients at an elevated risk of LA thrombus, despite anticoagulation status, may be a reasonable approach to minimize the risk of thromboembolic complications following cardioversion or catheter ablation,” propose the study’s authors, led by Antony Lurie, BMSC, Population Health Research Institute, Hamilton, Ont. Their report was published in the June 15 issue of the Journal of the American College of Cardiology.

Guidelines don’t encourage TEE before cardioversion in patients who have been on OAC for at least 3 weeks, the group notes, and policies on TEE use before AF ablation vary widely regardless of anticoagulation status.

The current study suggests that 3 weeks of OAC isn’t enough for a substantial number of patients, who might be put at thromboembolic risk if TEE were to be skipped before rhythm-control procedures.

Conversely, many patients unlikely to have LA thrombi get preprocedure TEE anyway. That can happen “irrespective of how long they’ve been anticoagulated, their pattern of atrial fibrillation, or their stroke risk,” senior author Jorge A. Wong, MD, MPH, Population Health Research Institute and McMaster University, Hamilton, Ont., told this news organization.

But “TEE is an invasive imaging modality, so it is associated with small element of risk.” The current study, Dr. Wong said, points to potential risk-stratification tools clinicians might use to guide more selective TEE screening.

“At sites where TEEs are done all the time for patients undergoing ablation, one could use several of these risk markers to perhaps tailor use of TEE in individuals,” Dr. Wong said. “For example, in people with paroxysmal atrial fibrillation, we found that the risk of left atrial appendage clot was approximately 1% or less.” Screening by TEE might reasonably be avoided in such patients.

“Fortunately, continued oral anticoagulation already yields low peri-procedural stroke rates,” observes an accompanying editorial from Paulus Kirchhof, MD, and Christoph Sinning, MD, from the University Heart & Vascular Center and German Centre of Cardiovascular Research, Hamburg.

“Based on this new analysis of existing data, a risk-based use of TEE imaging in anticoagulated patients could enable further improvement in the safe delivery of rhythm control interventions in patients with AF,” the editorialists agree.

The meta-analysis covered 10 prospective and 25 retrospective studies with a total of 14,653 patients that reported whether LA thrombus was present in patients with AF or atrial flutter (AFL) who underwent TEE after at least 3 weeks of VKA or DOAC therapy. Reports for 30 of the studies identified patients by rhythm-control procedure, and the remaining five didn’t specify TEE indications.

The weighted mean prevalence of LA thrombus at TEE was 2.73% (95% confidence interval, 1.95%-3.80%). The finding was not significantly changed in separate sensitivity analyses, the report says, including one limited to studies with low risk of bias and others excluding patients with valvular AF, interrupted OAC, heparin bridging, or subtherapeutic anticoagulation, respectively.

Patients treated with VKA and DOACs showed similar prevalences of LA thrombi, with means of 2.80% and 3.12%, respectively (P = .674). The prevalence was significantly higher in patients:

• with nonparoxysmal than with paroxysmal AF/AFL (4.81% vs. 1.03%; P < .001)
• undergoing cardioversion than ablation (5.55% vs. 1.65; P < .001)
• with CHA2DS2-VASc scores of at least 3 than with scores of 2 or less (6.31% vs. 1.06%; P < .001).

A limitation of the study, observe Dr. Kirchhof and Dr. Sinning, “is that all patients had a clinical indication for a TEE, which might be a selection bias. When a thrombus was found on TEE, clinical judgment led to postponing of the procedure,” thereby avoiding potential thromboembolism.

“Thus, the paper cannot demonstrate that presence of a thrombus on TEE is related to peri-procedural ischemic stroke,” they write.

The literature puts the risk for stroke or systemic embolism at well under 1% for patients anticoagulated with either VKA or DOACs for at least 3 weeks prior to cardioversion, in contrast to the nearly 3% prevalence of LA appendage thrombus by TEE in the current analysis, Dr. Wong observed.

“So we’re seeing a lot more left atrial appendage thrombus than we would see stroke,” but there wasn’t a way to determine whether that increases the stroke risk, he agreed.Dr. Wong, Dr. Lurie, and the other authors report no relevant conflicts. Dr. Kirchhof discloses receiving partial support “from several drug and device companies active in atrial fibrillation” and to being listed as inventor on two AF-related patents held by the University of Birmingham. Dr. Sinning reports no relevant relationships. 

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

Three or more weeks of oral anticoagulation (OAC) sometimes isn’t up to the job of clearing any potentially embolic left atrial (LA) thrombi before procedures like cardioversion or catheter ablation in patients with atrial fibrillation (AF). Such OAC-defiant LA thrombi aren’t common, nor are they rare enough to ignore, suggests a new meta-analysis that might also have identified features that predispose to them.

Such predictors of LA clots that persist despite OAC could potentially guide selective use of transesophageal echocardiography (TEE) instead of more routine policies to either use or not use TEE for thrombus rule-out before rhythm-control procedures, researchers propose.

Their prevalence was about 2.7% among the study’s more than 14,000 patients who received at least 3 weeks of OAC with either vitamin K antagonists (VKA) or direct oral anticoagulants (DOAC) before undergoing TEE.

But OAC-resistant LA thrombi were two- to four-times as common in patients with than without certain features, including AF other than paroxysmal and higher CHADS2 and CHA2DS2-VASc stroke risk-stratification scores.

“TEE imaging in select patients at an elevated risk of LA thrombus, despite anticoagulation status, may be a reasonable approach to minimize the risk of thromboembolic complications following cardioversion or catheter ablation,” propose the study’s authors, led by Antony Lurie, BMSC, Population Health Research Institute, Hamilton, Ont. Their report was published in the June 15 issue of the Journal of the American College of Cardiology.

Guidelines don’t encourage TEE before cardioversion in patients who have been on OAC for at least 3 weeks, the group notes, and policies on TEE use before AF ablation vary widely regardless of anticoagulation status.

The current study suggests that 3 weeks of OAC isn’t enough for a substantial number of patients, who might be put at thromboembolic risk if TEE were to be skipped before rhythm-control procedures.

Conversely, many patients unlikely to have LA thrombi get preprocedure TEE anyway. That can happen “irrespective of how long they’ve been anticoagulated, their pattern of atrial fibrillation, or their stroke risk,” senior author Jorge A. Wong, MD, MPH, Population Health Research Institute and McMaster University, Hamilton, Ont., told this news organization.

But “TEE is an invasive imaging modality, so it is associated with small element of risk.” The current study, Dr. Wong said, points to potential risk-stratification tools clinicians might use to guide more selective TEE screening.

“At sites where TEEs are done all the time for patients undergoing ablation, one could use several of these risk markers to perhaps tailor use of TEE in individuals,” Dr. Wong said. “For example, in people with paroxysmal atrial fibrillation, we found that the risk of left atrial appendage clot was approximately 1% or less.” Screening by TEE might reasonably be avoided in such patients.

“Fortunately, continued oral anticoagulation already yields low peri-procedural stroke rates,” observes an accompanying editorial from Paulus Kirchhof, MD, and Christoph Sinning, MD, from the University Heart & Vascular Center and German Centre of Cardiovascular Research, Hamburg.

“Based on this new analysis of existing data, a risk-based use of TEE imaging in anticoagulated patients could enable further improvement in the safe delivery of rhythm control interventions in patients with AF,” the editorialists agree.

The meta-analysis covered 10 prospective and 25 retrospective studies with a total of 14,653 patients that reported whether LA thrombus was present in patients with AF or atrial flutter (AFL) who underwent TEE after at least 3 weeks of VKA or DOAC therapy. Reports for 30 of the studies identified patients by rhythm-control procedure, and the remaining five didn’t specify TEE indications.

The weighted mean prevalence of LA thrombus at TEE was 2.73% (95% confidence interval, 1.95%-3.80%). The finding was not significantly changed in separate sensitivity analyses, the report says, including one limited to studies with low risk of bias and others excluding patients with valvular AF, interrupted OAC, heparin bridging, or subtherapeutic anticoagulation, respectively.

Patients treated with VKA and DOACs showed similar prevalences of LA thrombi, with means of 2.80% and 3.12%, respectively (P = .674). The prevalence was significantly higher in patients:

• with nonparoxysmal than with paroxysmal AF/AFL (4.81% vs. 1.03%; P < .001)
• undergoing cardioversion than ablation (5.55% vs. 1.65; P < .001)
• with CHA2DS2-VASc scores of at least 3 than with scores of 2 or less (6.31% vs. 1.06%; P < .001).

A limitation of the study, observe Dr. Kirchhof and Dr. Sinning, “is that all patients had a clinical indication for a TEE, which might be a selection bias. When a thrombus was found on TEE, clinical judgment led to postponing of the procedure,” thereby avoiding potential thromboembolism.

“Thus, the paper cannot demonstrate that presence of a thrombus on TEE is related to peri-procedural ischemic stroke,” they write.

The literature puts the risk for stroke or systemic embolism at well under 1% for patients anticoagulated with either VKA or DOACs for at least 3 weeks prior to cardioversion, in contrast to the nearly 3% prevalence of LA appendage thrombus by TEE in the current analysis, Dr. Wong observed.

“So we’re seeing a lot more left atrial appendage thrombus than we would see stroke,” but there wasn’t a way to determine whether that increases the stroke risk, he agreed.Dr. Wong, Dr. Lurie, and the other authors report no relevant conflicts. Dr. Kirchhof discloses receiving partial support “from several drug and device companies active in atrial fibrillation” and to being listed as inventor on two AF-related patents held by the University of Birmingham. Dr. Sinning reports no relevant relationships. 

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

The optimal first step to address mild to moderately elevated blood pressure and cholesterol in otherwise healthy adults is a “prescription” to sit less and move more, the American Heart Association says in a new scientific statement.

“The current American Heart Association guidelines for diagnosing high blood pressure and cholesterol recognize that otherwise healthy individuals with mildly or moderately elevated levels of these cardiovascular risk factors should actively attempt to reduce these risks,” Bethany Barone Gibbs, PhD, chair of the statement writing group, said in an AHA news release.

“The first treatment strategy for many of these patients should be healthy lifestyle changes beginning with increasing physical activity,” said Dr. Gibbs, from the University of Pittsburgh.

The 12-page AHA scientific statement – Physical Activity as a Critical Component of First-Line Treatment for Elevated Blood Pressure or Cholesterol: Who, What, and How? – was published online June 2 in Hypertension.
 

Every little bit helps

According to the AHA, about 21% of American adults have systolic blood pressure between 120 and 139 mm Hg, or diastolic blood pressure between 80 and 89 mm Hg, which meets the criteria for lifestyle-only treatment for elevated BP outlined in the American College of Cardiology (ACC)/AHA high blood pressure guideline.

In addition, about 28% of American adults have LDL cholesterol above 70 mg/dL and otherwise meet the low-risk criteria for heart disease or stroke. These individuals would meet the criteria for lifestyle-only treatment outlined in the 2018 ACC/AHA cholesterol treatment guidelines, which include increased physical activity, weight loss, better diet, smoking cessation, and moderating alcohol intake.

“Of the recommended lifestyle changes, increasing physical activity has extensive benefits, including improving both blood pressure and blood cholesterol, that are comparable, superior, or complementary to other healthy lifestyle changes,” the writing group says.

“Physical activity assessment and prescription are an excellent lifestyle behavior treatment option for all patients, including for the large population of mild-moderate-risk patients with elevated blood pressure and blood cholesterol,” they note.

Research has shown that increasing physical activity can lead to clinically meaningful 3 or 4 mm Hg reductions in systolic and diastolic blood pressure, and 3 to 6 mg/dL decreases in LDL cholesterol, the authors point out.

Previous evidence also shows that physically active people have a 21% lower risk of developing cardiovascular disease and a 36% lower risk for death from cardiovascular diseases than those who are not physically active.

Physical activity also has benefits beyond heart health, including a lower risk for some cancers; improved bone, brain, and mental health; and better sleep, they note.

The U.S. Department of Health and Human Services 2018 physical activity guidelines advise Americans to log 150 minutes of moderate-intensity aerobic exercise or 75 minutes of vigorous aerobic activity each week and to participate in two or more weekly strength training sessions.

However, there is no minimum amount of time to receive benefits from physical activity.

“Every little bit of activity is better than none. Even small initial increases of 5 to 10 minutes a day can yield health benefits,” Dr. Gibbs said.
 

Translational advice for clinicians

The AHA statement encourages clinicians to ask patients about their physical activity at every interaction; provide ideas and resources to help patients improve and sustain regular life-long physical activity; and encourage and celebrate small increases in activity, such as walking more or taking the stairs, to help with motivation.

“In our world where physical activity is increasingly engineered out of our lives and the overwhelming default is to sit – and even more so now as the nation and the world is practicing quarantine and isolation to reduce the spread of coronavirus – the message that we must be relentless in our pursuit to ‘sit less and move more’ throughout the day is more important than ever,” said Dr. Gibbs.

The statement was prepared by a volunteer writing group on behalf of the AHA Council on Lifestyle and Cardiometabolic Health; the Council on Cardiovascular and Stroke Nursing; and the Council on Clinical Cardiology.

This research had no commercial funding. A list of disclosures for the writing group is available with the original article.

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

The optimal first step to address mild to moderately elevated blood pressure and cholesterol in otherwise healthy adults is a “prescription” to sit less and move more, the American Heart Association says in a new scientific statement.

“The current American Heart Association guidelines for diagnosing high blood pressure and cholesterol recognize that otherwise healthy individuals with mildly or moderately elevated levels of these cardiovascular risk factors should actively attempt to reduce these risks,” Bethany Barone Gibbs, PhD, chair of the statement writing group, said in an AHA news release.

“The first treatment strategy for many of these patients should be healthy lifestyle changes beginning with increasing physical activity,” said Dr. Gibbs, from the University of Pittsburgh.

The 12-page AHA scientific statement – Physical Activity as a Critical Component of First-Line Treatment for Elevated Blood Pressure or Cholesterol: Who, What, and How? – was published online June 2 in Hypertension.
 

Every little bit helps

According to the AHA, about 21% of American adults have systolic blood pressure between 120 and 139 mm Hg, or diastolic blood pressure between 80 and 89 mm Hg, which meets the criteria for lifestyle-only treatment for elevated BP outlined in the American College of Cardiology (ACC)/AHA high blood pressure guideline.

In addition, about 28% of American adults have LDL cholesterol above 70 mg/dL and otherwise meet the low-risk criteria for heart disease or stroke. These individuals would meet the criteria for lifestyle-only treatment outlined in the 2018 ACC/AHA cholesterol treatment guidelines, which include increased physical activity, weight loss, better diet, smoking cessation, and moderating alcohol intake.

“Of the recommended lifestyle changes, increasing physical activity has extensive benefits, including improving both blood pressure and blood cholesterol, that are comparable, superior, or complementary to other healthy lifestyle changes,” the writing group says.

“Physical activity assessment and prescription are an excellent lifestyle behavior treatment option for all patients, including for the large population of mild-moderate-risk patients with elevated blood pressure and blood cholesterol,” they note.

Research has shown that increasing physical activity can lead to clinically meaningful 3 or 4 mm Hg reductions in systolic and diastolic blood pressure, and 3 to 6 mg/dL decreases in LDL cholesterol, the authors point out.

Previous evidence also shows that physically active people have a 21% lower risk of developing cardiovascular disease and a 36% lower risk for death from cardiovascular diseases than those who are not physically active.

Physical activity also has benefits beyond heart health, including a lower risk for some cancers; improved bone, brain, and mental health; and better sleep, they note.

The U.S. Department of Health and Human Services 2018 physical activity guidelines advise Americans to log 150 minutes of moderate-intensity aerobic exercise or 75 minutes of vigorous aerobic activity each week and to participate in two or more weekly strength training sessions.

However, there is no minimum amount of time to receive benefits from physical activity.

“Every little bit of activity is better than none. Even small initial increases of 5 to 10 minutes a day can yield health benefits,” Dr. Gibbs said.
 

Translational advice for clinicians

The AHA statement encourages clinicians to ask patients about their physical activity at every interaction; provide ideas and resources to help patients improve and sustain regular life-long physical activity; and encourage and celebrate small increases in activity, such as walking more or taking the stairs, to help with motivation.

“In our world where physical activity is increasingly engineered out of our lives and the overwhelming default is to sit – and even more so now as the nation and the world is practicing quarantine and isolation to reduce the spread of coronavirus – the message that we must be relentless in our pursuit to ‘sit less and move more’ throughout the day is more important than ever,” said Dr. Gibbs.

The statement was prepared by a volunteer writing group on behalf of the AHA Council on Lifestyle and Cardiometabolic Health; the Council on Cardiovascular and Stroke Nursing; and the Council on Clinical Cardiology.

This research had no commercial funding. A list of disclosures for the writing group is available with the original article.

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

The optimal first step to address mild to moderately elevated blood pressure and cholesterol in otherwise healthy adults is a “prescription” to sit less and move more, the American Heart Association says in a new scientific statement.

“The current American Heart Association guidelines for diagnosing high blood pressure and cholesterol recognize that otherwise healthy individuals with mildly or moderately elevated levels of these cardiovascular risk factors should actively attempt to reduce these risks,” Bethany Barone Gibbs, PhD, chair of the statement writing group, said in an AHA news release.

“The first treatment strategy for many of these patients should be healthy lifestyle changes beginning with increasing physical activity,” said Dr. Gibbs, from the University of Pittsburgh.

The 12-page AHA scientific statement – Physical Activity as a Critical Component of First-Line Treatment for Elevated Blood Pressure or Cholesterol: Who, What, and How? – was published online June 2 in Hypertension.
 

Every little bit helps

According to the AHA, about 21% of American adults have systolic blood pressure between 120 and 139 mm Hg, or diastolic blood pressure between 80 and 89 mm Hg, which meets the criteria for lifestyle-only treatment for elevated BP outlined in the American College of Cardiology (ACC)/AHA high blood pressure guideline.

In addition, about 28% of American adults have LDL cholesterol above 70 mg/dL and otherwise meet the low-risk criteria for heart disease or stroke. These individuals would meet the criteria for lifestyle-only treatment outlined in the 2018 ACC/AHA cholesterol treatment guidelines, which include increased physical activity, weight loss, better diet, smoking cessation, and moderating alcohol intake.

“Of the recommended lifestyle changes, increasing physical activity has extensive benefits, including improving both blood pressure and blood cholesterol, that are comparable, superior, or complementary to other healthy lifestyle changes,” the writing group says.

“Physical activity assessment and prescription are an excellent lifestyle behavior treatment option for all patients, including for the large population of mild-moderate-risk patients with elevated blood pressure and blood cholesterol,” they note.

Research has shown that increasing physical activity can lead to clinically meaningful 3 or 4 mm Hg reductions in systolic and diastolic blood pressure, and 3 to 6 mg/dL decreases in LDL cholesterol, the authors point out.

Previous evidence also shows that physically active people have a 21% lower risk of developing cardiovascular disease and a 36% lower risk for death from cardiovascular diseases than those who are not physically active.

Physical activity also has benefits beyond heart health, including a lower risk for some cancers; improved bone, brain, and mental health; and better sleep, they note.

The U.S. Department of Health and Human Services 2018 physical activity guidelines advise Americans to log 150 minutes of moderate-intensity aerobic exercise or 75 minutes of vigorous aerobic activity each week and to participate in two or more weekly strength training sessions.

However, there is no minimum amount of time to receive benefits from physical activity.

“Every little bit of activity is better than none. Even small initial increases of 5 to 10 minutes a day can yield health benefits,” Dr. Gibbs said.
 

Translational advice for clinicians

The AHA statement encourages clinicians to ask patients about their physical activity at every interaction; provide ideas and resources to help patients improve and sustain regular life-long physical activity; and encourage and celebrate small increases in activity, such as walking more or taking the stairs, to help with motivation.

“In our world where physical activity is increasingly engineered out of our lives and the overwhelming default is to sit – and even more so now as the nation and the world is practicing quarantine and isolation to reduce the spread of coronavirus – the message that we must be relentless in our pursuit to ‘sit less and move more’ throughout the day is more important than ever,” said Dr. Gibbs.

The statement was prepared by a volunteer writing group on behalf of the AHA Council on Lifestyle and Cardiometabolic Health; the Council on Cardiovascular and Stroke Nursing; and the Council on Clinical Cardiology.

This research had no commercial funding. A list of disclosures for the writing group is available with the original article.

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

A new clinical score has been developed, and externally validated, to identify patients at risk of bleeding after transcatheter aortic valve replacement (TAVR).

“Despite the TAVR iterations, we recognize that bleeding remains a very important and perhaps also neglected issue. Indeed, no specifically developed standard algorithm existed before this to assess bleeding risk post-TAVR,” lead author Eliano Pio Navarese, MD, PhD, said in an interview.

Although bleeding rates can be as high as 9% at 30 days and between 3% and 11% in the first year, only a few studies have applied existing scores to TAVR patients, he noted.

The PREDICT-TAVR score includes six common variables and can be calculated by hand using a simple nomogram or a web-based calculator, with a dedicated website in the works, said Dr. Navarese, Nicolaus Copernicus University and SIRO MEDICINE Network, Bydgoszcz, Poland, and the University of Alberta, Edmonton.

A strength of the score is that machine-learning methods were used and the choice of variables optimized through recursive feature elimination and cross validation to remove the weakest variables, he said. Artificial intelligence, including use of random forest, naïve Bayes, and logistic regression classifiers, was also applied to the algorithms and the results cross-checked with standard multivariate analysis.

“It was a tremendous effort in terms of the analytics conducted,” Dr. Navarese said. “This is not a simple score but the integration of the most sophisticated machine learning methods and algorithms.”

Details are published in the June 14 issue of JACC: Cardiovascular Interventions.

The six variables used to calculate 30-day bleeding risk after TAVR and the points assigned to each are:

• blood hemoglobin (0-10 points)
• serum iron concentration (0-5 points)
• common femoral artery diameter (0-3 points)
•  (0-3 points)
• dual antiplatelet therapy (DAPT; 0-2 points)
• oral anticoagulation therapy (0-2 points)

The six items were selected among 104 baseline variables from 5,185 consecutive patients undergoing transfemoral TAVR in the prospective RISPEVA (Registro Italiano GISE sull’Impianto di Valvola Aortica Percutanea) registry between March 2012 and December 2019, then validated in 5,043 patients in the prospective POL-TAVI (Polish Registry of Transcatheter Aortic Valve Implantation) between January 2013 and December 2019.

In the derivation cohort, 216 patients (4.2%) experienced bleeding events at 1 year, with 169 events (78%) occurring during the first 30 days.

PREDICT-TAVR exhibited high discriminatory power for bleeding events at 30 days, as reflected by an area under the curve (AUC) of 0.80 (95% confidence interval, 0.75-0.83). Internal validation by optimism bootstrap-corrected AUC was consistent at 0.79 (95% CI, 0.75-0.83).

PREDICT-TAVR also outperformed scores not developed for TAVR, such as the PARIS score for patients undergoing percutaneous coronary intervention (AUC, 0.69) and the well-validated HAS-BLED for patients receiving anticoagulation (AUC, 0.58; P < .001 for both).

In the validation cohort, the AUC for bleeding complications at 30 days was 0.78 (95% CI, 0.72-0.82) versus an AUC of 0.68 for PARIS and 0.66 for HAS-BLED.

A HAS-BLED score of 4 predicted a higher rate of severe bleeding and mortality in the year after transfemoral TAVR in the 2018 Japanese OCEAN-TAVI study.
 

Bleeding events by risk categories

Risk score quartiles identified as low risk were 8 points or less, as moderate risk were 8 to less than 10 points, as high risk were 10 to less than 12 points, and as very-high-risk score were above 12 points.

In the derivation cohort, 30-day bleeding events across quartiles were 0.8%, 1.1%, 2.5%, and 8.5%, respectively (overall P < .001).

Compared with the lowest quartile, bleeding risk was numerically higher for the second quartile (odds ratio, 1.75) and significantly higher in the third (OR, 2.0) and fourth (OR, 2.49) quartiles (P < .001 for both).

A landmark cumulative-event analysis showed a significantly greater risk of bleeding for the two highest quartiles up to 30 days; however, these differences were no longer significant from 30 days to 1 year, likely because of a limited number of events, the authors suggest. Similar results were seen in the validation cohort.

The number of patients in the high- and very-high-risk groups isn’t trivial, and bleeding rates reached as high as 12.6% in the highest quartile, Dr. Navarese observed. Guidelines recommend DAPT for 3 to 6 months after TAVR; however, emerging data, including a recent meta-analysis, suggest monotherapy may be a very good option.

“So, if you had a high bleeding risk and are considering postprocedural DAPT or anticoagulation, I would think twice rather than administering dual antiplatelet therapy or anticoagulation for a long time, or at least, I would consider the impact of this score on this choice,” he said.

Subgroup analyses showed AUCs ranging from 0.77 to 0.81 for subgroups such as age older than 80 years, diabetes, obesity, female sex, previous PCI, and New York Heart Association class III or IV.

Serum iron showed the highest AUC in the primary PREDICT-TAVR model; however, should iron levels be unavailable, a simplified score modeled without iron levels retained predictive power, yielding AUCs for 30-day bleeding of 0.78 in the derivation cohort and 0.75 in the validation cohort.

“PREDICT-TAVR score can impact clinical practice, not only selecting the optimal thrombotic regimen in certain high bleeding-risk populations but also to treat pre-TAVR anemia and iron deficiencies, which may affect outcomes,” Dr. Navarese said. “Of course, future prospective biological and clinical investigations are needed to elucidate the score and the role of the score’s treatable risk traits in reducing post-TAVR bleeding complications.”

Commenting for this news organization, Sunil Rao, MD, Duke University, Durham, N.C., said anemia is a covariant in many risk models for bleeding and vascular complications in PCI and acute coronary syndrome, but hemoglobin and iron levels are collinear.

“The problem I think is when you throw hemoglobin and iron in the same model, just by play of chance, one variable can knock out the other one,” he said. “So I don’t know necessarily if we need to start measuring iron on everyone. We certainly should be measuring hemoglobin, which I think most people will have, and if a patient has pre-existing anemia, that should be a red flag for us.”

Age and Society of Thoracic Surgeons (STS) risk score did not reach statistical significance in the model – likely reflecting the high-/extremely-high-risk patient population with an average STS score of 7.7 and average age of 82 years – but may become more important as TAVR is applied more widely, Dr. Rao and Zachary Wegermann, MD, Duke Clinical Research Institute, write in an accompanying editorial.

They also point out that the study was limited by a low rate of bleeding events, and, importantly, the score can’t distinguish between minor or major bleeding.

“It’s worth trying to repeat the analyses in lower-risk patients because we may find other covariates that are important,” Dr. Rao said in an interview. “The other thing we need to get to is probably being a little bit more sophisticated. The variables included in these models are the ones that are measured; they’re also the ones that are clinically apparent.”

“But there’s a whole area of genomic medicine, proteomic medicine, metabolomic medicine that, as it starts developing and becomes more and more sophisticated, my suspicion is that we’re going to get even more precise and accurate about patients’ risk, and it’s going to become more individualized, rather than just measuring variables like age and lab values,” he said.

In the meantime, having variables documented in the electronic health record, with hard stops deployed if variables aren’t measured, is “a step in the right direction,” he added.

Dr. Navarese has received research grants from Abbott, Amgen, and Medtronic and received lecture fees and honoraria from Amgen, AstraZeneca, Bayer, Pfizer, and Sanofi-Regeneron, outside the submitted work. Dr. Rao and Dr. Wegermann report no relevant financial disclosures.

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

A new clinical score has been developed, and externally validated, to identify patients at risk of bleeding after transcatheter aortic valve replacement (TAVR).

“Despite the TAVR iterations, we recognize that bleeding remains a very important and perhaps also neglected issue. Indeed, no specifically developed standard algorithm existed before this to assess bleeding risk post-TAVR,” lead author Eliano Pio Navarese, MD, PhD, said in an interview.

Although bleeding rates can be as high as 9% at 30 days and between 3% and 11% in the first year, only a few studies have applied existing scores to TAVR patients, he noted.

The PREDICT-TAVR score includes six common variables and can be calculated by hand using a simple nomogram or a web-based calculator, with a dedicated website in the works, said Dr. Navarese, Nicolaus Copernicus University and SIRO MEDICINE Network, Bydgoszcz, Poland, and the University of Alberta, Edmonton.

A strength of the score is that machine-learning methods were used and the choice of variables optimized through recursive feature elimination and cross validation to remove the weakest variables, he said. Artificial intelligence, including use of random forest, naïve Bayes, and logistic regression classifiers, was also applied to the algorithms and the results cross-checked with standard multivariate analysis.

“It was a tremendous effort in terms of the analytics conducted,” Dr. Navarese said. “This is not a simple score but the integration of the most sophisticated machine learning methods and algorithms.”

Details are published in the June 14 issue of JACC: Cardiovascular Interventions.

The six variables used to calculate 30-day bleeding risk after TAVR and the points assigned to each are:

• blood hemoglobin (0-10 points)
• serum iron concentration (0-5 points)
• common femoral artery diameter (0-3 points)
•  (0-3 points)
• dual antiplatelet therapy (DAPT; 0-2 points)
• oral anticoagulation therapy (0-2 points)

The six items were selected among 104 baseline variables from 5,185 consecutive patients undergoing transfemoral TAVR in the prospective RISPEVA (Registro Italiano GISE sull’Impianto di Valvola Aortica Percutanea) registry between March 2012 and December 2019, then validated in 5,043 patients in the prospective POL-TAVI (Polish Registry of Transcatheter Aortic Valve Implantation) between January 2013 and December 2019.

In the derivation cohort, 216 patients (4.2%) experienced bleeding events at 1 year, with 169 events (78%) occurring during the first 30 days.

PREDICT-TAVR exhibited high discriminatory power for bleeding events at 30 days, as reflected by an area under the curve (AUC) of 0.80 (95% confidence interval, 0.75-0.83). Internal validation by optimism bootstrap-corrected AUC was consistent at 0.79 (95% CI, 0.75-0.83).

PREDICT-TAVR also outperformed scores not developed for TAVR, such as the PARIS score for patients undergoing percutaneous coronary intervention (AUC, 0.69) and the well-validated HAS-BLED for patients receiving anticoagulation (AUC, 0.58; P < .001 for both).

In the validation cohort, the AUC for bleeding complications at 30 days was 0.78 (95% CI, 0.72-0.82) versus an AUC of 0.68 for PARIS and 0.66 for HAS-BLED.

A HAS-BLED score of 4 predicted a higher rate of severe bleeding and mortality in the year after transfemoral TAVR in the 2018 Japanese OCEAN-TAVI study.
 

Bleeding events by risk categories

Risk score quartiles identified as low risk were 8 points or less, as moderate risk were 8 to less than 10 points, as high risk were 10 to less than 12 points, and as very-high-risk score were above 12 points.

In the derivation cohort, 30-day bleeding events across quartiles were 0.8%, 1.1%, 2.5%, and 8.5%, respectively (overall P < .001).

Compared with the lowest quartile, bleeding risk was numerically higher for the second quartile (odds ratio, 1.75) and significantly higher in the third (OR, 2.0) and fourth (OR, 2.49) quartiles (P < .001 for both).

A landmark cumulative-event analysis showed a significantly greater risk of bleeding for the two highest quartiles up to 30 days; however, these differences were no longer significant from 30 days to 1 year, likely because of a limited number of events, the authors suggest. Similar results were seen in the validation cohort.

The number of patients in the high- and very-high-risk groups isn’t trivial, and bleeding rates reached as high as 12.6% in the highest quartile, Dr. Navarese observed. Guidelines recommend DAPT for 3 to 6 months after TAVR; however, emerging data, including a recent meta-analysis, suggest monotherapy may be a very good option.

“So, if you had a high bleeding risk and are considering postprocedural DAPT or anticoagulation, I would think twice rather than administering dual antiplatelet therapy or anticoagulation for a long time, or at least, I would consider the impact of this score on this choice,” he said.

Subgroup analyses showed AUCs ranging from 0.77 to 0.81 for subgroups such as age older than 80 years, diabetes, obesity, female sex, previous PCI, and New York Heart Association class III or IV.

Serum iron showed the highest AUC in the primary PREDICT-TAVR model; however, should iron levels be unavailable, a simplified score modeled without iron levels retained predictive power, yielding AUCs for 30-day bleeding of 0.78 in the derivation cohort and 0.75 in the validation cohort.

“PREDICT-TAVR score can impact clinical practice, not only selecting the optimal thrombotic regimen in certain high bleeding-risk populations but also to treat pre-TAVR anemia and iron deficiencies, which may affect outcomes,” Dr. Navarese said. “Of course, future prospective biological and clinical investigations are needed to elucidate the score and the role of the score’s treatable risk traits in reducing post-TAVR bleeding complications.”

Commenting for this news organization, Sunil Rao, MD, Duke University, Durham, N.C., said anemia is a covariant in many risk models for bleeding and vascular complications in PCI and acute coronary syndrome, but hemoglobin and iron levels are collinear.

“The problem I think is when you throw hemoglobin and iron in the same model, just by play of chance, one variable can knock out the other one,” he said. “So I don’t know necessarily if we need to start measuring iron on everyone. We certainly should be measuring hemoglobin, which I think most people will have, and if a patient has pre-existing anemia, that should be a red flag for us.”

Age and Society of Thoracic Surgeons (STS) risk score did not reach statistical significance in the model – likely reflecting the high-/extremely-high-risk patient population with an average STS score of 7.7 and average age of 82 years – but may become more important as TAVR is applied more widely, Dr. Rao and Zachary Wegermann, MD, Duke Clinical Research Institute, write in an accompanying editorial.

They also point out that the study was limited by a low rate of bleeding events, and, importantly, the score can’t distinguish between minor or major bleeding.

“It’s worth trying to repeat the analyses in lower-risk patients because we may find other covariates that are important,” Dr. Rao said in an interview. “The other thing we need to get to is probably being a little bit more sophisticated. The variables included in these models are the ones that are measured; they’re also the ones that are clinically apparent.”

“But there’s a whole area of genomic medicine, proteomic medicine, metabolomic medicine that, as it starts developing and becomes more and more sophisticated, my suspicion is that we’re going to get even more precise and accurate about patients’ risk, and it’s going to become more individualized, rather than just measuring variables like age and lab values,” he said.

In the meantime, having variables documented in the electronic health record, with hard stops deployed if variables aren’t measured, is “a step in the right direction,” he added.

Dr. Navarese has received research grants from Abbott, Amgen, and Medtronic and received lecture fees and honoraria from Amgen, AstraZeneca, Bayer, Pfizer, and Sanofi-Regeneron, outside the submitted work. Dr. Rao and Dr. Wegermann report no relevant financial disclosures.

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

A new clinical score has been developed, and externally validated, to identify patients at risk of bleeding after transcatheter aortic valve replacement (TAVR).

“Despite the TAVR iterations, we recognize that bleeding remains a very important and perhaps also neglected issue. Indeed, no specifically developed standard algorithm existed before this to assess bleeding risk post-TAVR,” lead author Eliano Pio Navarese, MD, PhD, said in an interview.

Although bleeding rates can be as high as 9% at 30 days and between 3% and 11% in the first year, only a few studies have applied existing scores to TAVR patients, he noted.

The PREDICT-TAVR score includes six common variables and can be calculated by hand using a simple nomogram or a web-based calculator, with a dedicated website in the works, said Dr. Navarese, Nicolaus Copernicus University and SIRO MEDICINE Network, Bydgoszcz, Poland, and the University of Alberta, Edmonton.

A strength of the score is that machine-learning methods were used and the choice of variables optimized through recursive feature elimination and cross validation to remove the weakest variables, he said. Artificial intelligence, including use of random forest, naïve Bayes, and logistic regression classifiers, was also applied to the algorithms and the results cross-checked with standard multivariate analysis.

“It was a tremendous effort in terms of the analytics conducted,” Dr. Navarese said. “This is not a simple score but the integration of the most sophisticated machine learning methods and algorithms.”

Details are published in the June 14 issue of JACC: Cardiovascular Interventions.

The six variables used to calculate 30-day bleeding risk after TAVR and the points assigned to each are:

• blood hemoglobin (0-10 points)
• serum iron concentration (0-5 points)
• common femoral artery diameter (0-3 points)
•  (0-3 points)
• dual antiplatelet therapy (DAPT; 0-2 points)
• oral anticoagulation therapy (0-2 points)

The six items were selected among 104 baseline variables from 5,185 consecutive patients undergoing transfemoral TAVR in the prospective RISPEVA (Registro Italiano GISE sull’Impianto di Valvola Aortica Percutanea) registry between March 2012 and December 2019, then validated in 5,043 patients in the prospective POL-TAVI (Polish Registry of Transcatheter Aortic Valve Implantation) between January 2013 and December 2019.

In the derivation cohort, 216 patients (4.2%) experienced bleeding events at 1 year, with 169 events (78%) occurring during the first 30 days.

PREDICT-TAVR exhibited high discriminatory power for bleeding events at 30 days, as reflected by an area under the curve (AUC) of 0.80 (95% confidence interval, 0.75-0.83). Internal validation by optimism bootstrap-corrected AUC was consistent at 0.79 (95% CI, 0.75-0.83).

PREDICT-TAVR also outperformed scores not developed for TAVR, such as the PARIS score for patients undergoing percutaneous coronary intervention (AUC, 0.69) and the well-validated HAS-BLED for patients receiving anticoagulation (AUC, 0.58; P < .001 for both).

In the validation cohort, the AUC for bleeding complications at 30 days was 0.78 (95% CI, 0.72-0.82) versus an AUC of 0.68 for PARIS and 0.66 for HAS-BLED.

A HAS-BLED score of 4 predicted a higher rate of severe bleeding and mortality in the year after transfemoral TAVR in the 2018 Japanese OCEAN-TAVI study.
 

Bleeding events by risk categories

Risk score quartiles identified as low risk were 8 points or less, as moderate risk were 8 to less than 10 points, as high risk were 10 to less than 12 points, and as very-high-risk score were above 12 points.

In the derivation cohort, 30-day bleeding events across quartiles were 0.8%, 1.1%, 2.5%, and 8.5%, respectively (overall P < .001).

Compared with the lowest quartile, bleeding risk was numerically higher for the second quartile (odds ratio, 1.75) and significantly higher in the third (OR, 2.0) and fourth (OR, 2.49) quartiles (P < .001 for both).

A landmark cumulative-event analysis showed a significantly greater risk of bleeding for the two highest quartiles up to 30 days; however, these differences were no longer significant from 30 days to 1 year, likely because of a limited number of events, the authors suggest. Similar results were seen in the validation cohort.

The number of patients in the high- and very-high-risk groups isn’t trivial, and bleeding rates reached as high as 12.6% in the highest quartile, Dr. Navarese observed. Guidelines recommend DAPT for 3 to 6 months after TAVR; however, emerging data, including a recent meta-analysis, suggest monotherapy may be a very good option.

“So, if you had a high bleeding risk and are considering postprocedural DAPT or anticoagulation, I would think twice rather than administering dual antiplatelet therapy or anticoagulation for a long time, or at least, I would consider the impact of this score on this choice,” he said.

Subgroup analyses showed AUCs ranging from 0.77 to 0.81 for subgroups such as age older than 80 years, diabetes, obesity, female sex, previous PCI, and New York Heart Association class III or IV.

Serum iron showed the highest AUC in the primary PREDICT-TAVR model; however, should iron levels be unavailable, a simplified score modeled without iron levels retained predictive power, yielding AUCs for 30-day bleeding of 0.78 in the derivation cohort and 0.75 in the validation cohort.

“PREDICT-TAVR score can impact clinical practice, not only selecting the optimal thrombotic regimen in certain high bleeding-risk populations but also to treat pre-TAVR anemia and iron deficiencies, which may affect outcomes,” Dr. Navarese said. “Of course, future prospective biological and clinical investigations are needed to elucidate the score and the role of the score’s treatable risk traits in reducing post-TAVR bleeding complications.”

Commenting for this news organization, Sunil Rao, MD, Duke University, Durham, N.C., said anemia is a covariant in many risk models for bleeding and vascular complications in PCI and acute coronary syndrome, but hemoglobin and iron levels are collinear.

“The problem I think is when you throw hemoglobin and iron in the same model, just by play of chance, one variable can knock out the other one,” he said. “So I don’t know necessarily if we need to start measuring iron on everyone. We certainly should be measuring hemoglobin, which I think most people will have, and if a patient has pre-existing anemia, that should be a red flag for us.”

Age and Society of Thoracic Surgeons (STS) risk score did not reach statistical significance in the model – likely reflecting the high-/extremely-high-risk patient population with an average STS score of 7.7 and average age of 82 years – but may become more important as TAVR is applied more widely, Dr. Rao and Zachary Wegermann, MD, Duke Clinical Research Institute, write in an accompanying editorial.

They also point out that the study was limited by a low rate of bleeding events, and, importantly, the score can’t distinguish between minor or major bleeding.

“It’s worth trying to repeat the analyses in lower-risk patients because we may find other covariates that are important,” Dr. Rao said in an interview. “The other thing we need to get to is probably being a little bit more sophisticated. The variables included in these models are the ones that are measured; they’re also the ones that are clinically apparent.”

“But there’s a whole area of genomic medicine, proteomic medicine, metabolomic medicine that, as it starts developing and becomes more and more sophisticated, my suspicion is that we’re going to get even more precise and accurate about patients’ risk, and it’s going to become more individualized, rather than just measuring variables like age and lab values,” he said.

In the meantime, having variables documented in the electronic health record, with hard stops deployed if variables aren’t measured, is “a step in the right direction,” he added.

Dr. Navarese has received research grants from Abbott, Amgen, and Medtronic and received lecture fees and honoraria from Amgen, AstraZeneca, Bayer, Pfizer, and Sanofi-Regeneron, outside the submitted work. Dr. Rao and Dr. Wegermann report no relevant financial disclosures.

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

Further evidence that powerful magnets in some Apple iPhones can interfere with cardiac implantable electronic devices (CIEDs) comes from a small study that also suggests some devices are more susceptible than others.

The iPhone 12 Pro Max with MagSafe technology interfered with CIEDs implanted in three consecutive patients presenting to an electrophysiology lab and in 8 of 11 implantable cardioverter defibrillators (ICDs) and pacemakers (72.7%) still in their original packaging.

The results, published in the Journal of the American Heart Association, are consistent with a widely publicized single-patient report this February and evidence of electromagnetic interference with fitness wristbands and e-cigarettes.

The MagSafe technology supports wireless charging and is optimized by a ring-shaped array of magnets. Although magnet mode activation has been shown to occur in CIEDs with exposure to a magnetic field as low as 10 gauss, the field strength of the iPhone 12 Pro Max can be greater than 50 G when in direct contact, the researchers determined.

“If this becomes a standard in a lot of the new smartphones or companies start to use stronger magnets ... then we will see more and more of these consumer electronic and device interactions,” senior author Michael Wu, MD, Brown University, Providence, R.I., told this news organization.

In a May advisory on these device interactions, the U.S. Food and Drug Administration also cautioned that the number of consumer electronics with strong magnets is expected to increase over time.

That trend appears to be already underway, with Forbes reporting in February that the MagSafe batteries will be “getting stronger” as part of upgrades to the iPhone 13 and Bloomberg reporting in advance of Apple’s annual developers conference this week that an upgraded version of MagSafe is in the works to support wireless charging for its iPad. MagSafe has not been used previously in iPads.

Although Apple has acknowledged that the iPhone 12 contains more magnets than previous iPhone models, it says “they’re not expected to pose a greater risk of magnetic interference to medical devices than prior iPhone models.” The company maintains a page that specifically warns about the potential for interactions and advises that consumers keep the iPhone and MagSafe accessories more than 15 cm (6 inches) away from medical devices.

Older-generation iPhones have not shown this risk, with only one case of interference reported with the iPhone 6 and an Apple Watch in 1,352 tests among 148 patients with CIEDs and leads from four different manufacturers.

In the present study, magnet reversion mode was triggered in all three patients when the iPhone 12 Pro Max was placed on the skin over the device.

The phone inhibited tachycardia therapies in Medtronic’s Amplia MRI Quad CRT-D and Abbott’s 1231-40 Fortify VR device.

The Boston Scientific V273 Intua CRT-P device, however, “appeared to be less susceptible, as we were only able to elicit transient temporary asynchronous pacing but no sustained response by the iPhone 12 Pro Max magnet,” Dr. Wu and colleagues note.

Among the 11 ex vivo CIEDs tested, placing the iPhone 12 Pro Max directly over the packaged device inhibited tachytherapies in Medtronic’s Visia AF MRI ICD and Abbott’s Fortify Assura DR ICD and Ellipse DR ICD.

The phone also led to asynchronous pacing in Medtronic’s Azure, Advisa MRI, and Adapta pacemakers and in Abbott’s Assurity MRI pacemaker.

Boston Scientific devices again “appeared to be less susceptible, as no clear magnet interference” was noted in the Dynagen ICD, Emblem MRI S-ICD, or Accolade MRI pacemaker, Dr. Wu reported. There was temporary asynchronous pacing but no sustained response in the company’s U125 Valitude pacemaker.

Using the Medtronic Visia AF MRI ICD, the researchers found that the iPhone 12 Pro Max was able to trigger magnet reversion mode at a distance up to 1.5 cm (0.6 inch) from the anterior aspect of the device ex vivo.

The difference in magnet response to the iPhone 12 Pro Max among the different devices is likely due to different hall-sensor magnet sensitivity, as all of the devices were susceptible to a standard donut magnet, Dr. Wu noted. Boston Scientific’s Accolade MRI pacemaker, for example, requires a magnet stronger than 70 G to activate magnet mode, according to the product manual.

“Even so, sometimes with our test, we were able to trigger a brief response,” he said. “The response isn’t as lasting as some of the other companies, but with the small sample size, I can only speculate and suggest that maybe it’s possible. But we always want a formal study through the company or other agencies to really pinpoint which company has more susceptible devices.”

As to whether manufacturers should build CIEDs less susceptible to today’s stronger magnets, Dr. Wu said it’s worth exploring, but there are pros and cons.

Although magnets in consumer devices have the potential to inhibit lifesaving therapies, a magnet is also very useful in certain medical settings, such as a quick way to ensure pacing without worrying about electrocautery noise during surgery or to deactivate a defibrillator if there’s noise resulting in inappropriate shocks.

“It would require an overhaul of a lot of the devices going forward, and I think that’s something that’s worth exploring, especially now that a lot of devices are using wireless communication, Bluetooth, and other communication technology,” he said.

Even though the study is small, Dr. Wu said, it does represent many of the available devices and has clinical implications, given that people often put their smartphones in a breast pocket.

“This report highlights the importance of public awareness regarding an interaction between CIEDs and a recently released smartphone model with magnetic charging capability,” Dr. Wu and colleagues conclude.

Apple was contacted for comment but had not responded at press time.

The authors reported no study funding or relevant conflicts of interests.

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

Further evidence that powerful magnets in some Apple iPhones can interfere with cardiac implantable electronic devices (CIEDs) comes from a small study that also suggests some devices are more susceptible than others.

The iPhone 12 Pro Max with MagSafe technology interfered with CIEDs implanted in three consecutive patients presenting to an electrophysiology lab and in 8 of 11 implantable cardioverter defibrillators (ICDs) and pacemakers (72.7%) still in their original packaging.

The results, published in the Journal of the American Heart Association, are consistent with a widely publicized single-patient report this February and evidence of electromagnetic interference with fitness wristbands and e-cigarettes.

The MagSafe technology supports wireless charging and is optimized by a ring-shaped array of magnets. Although magnet mode activation has been shown to occur in CIEDs with exposure to a magnetic field as low as 10 gauss, the field strength of the iPhone 12 Pro Max can be greater than 50 G when in direct contact, the researchers determined.

“If this becomes a standard in a lot of the new smartphones or companies start to use stronger magnets ... then we will see more and more of these consumer electronic and device interactions,” senior author Michael Wu, MD, Brown University, Providence, R.I., told this news organization.

In a May advisory on these device interactions, the U.S. Food and Drug Administration also cautioned that the number of consumer electronics with strong magnets is expected to increase over time.

That trend appears to be already underway, with Forbes reporting in February that the MagSafe batteries will be “getting stronger” as part of upgrades to the iPhone 13 and Bloomberg reporting in advance of Apple’s annual developers conference this week that an upgraded version of MagSafe is in the works to support wireless charging for its iPad. MagSafe has not been used previously in iPads.

Although Apple has acknowledged that the iPhone 12 contains more magnets than previous iPhone models, it says “they’re not expected to pose a greater risk of magnetic interference to medical devices than prior iPhone models.” The company maintains a page that specifically warns about the potential for interactions and advises that consumers keep the iPhone and MagSafe accessories more than 15 cm (6 inches) away from medical devices.

Older-generation iPhones have not shown this risk, with only one case of interference reported with the iPhone 6 and an Apple Watch in 1,352 tests among 148 patients with CIEDs and leads from four different manufacturers.

In the present study, magnet reversion mode was triggered in all three patients when the iPhone 12 Pro Max was placed on the skin over the device.

The phone inhibited tachycardia therapies in Medtronic’s Amplia MRI Quad CRT-D and Abbott’s 1231-40 Fortify VR device.

The Boston Scientific V273 Intua CRT-P device, however, “appeared to be less susceptible, as we were only able to elicit transient temporary asynchronous pacing but no sustained response by the iPhone 12 Pro Max magnet,” Dr. Wu and colleagues note.

Among the 11 ex vivo CIEDs tested, placing the iPhone 12 Pro Max directly over the packaged device inhibited tachytherapies in Medtronic’s Visia AF MRI ICD and Abbott’s Fortify Assura DR ICD and Ellipse DR ICD.

The phone also led to asynchronous pacing in Medtronic’s Azure, Advisa MRI, and Adapta pacemakers and in Abbott’s Assurity MRI pacemaker.

Boston Scientific devices again “appeared to be less susceptible, as no clear magnet interference” was noted in the Dynagen ICD, Emblem MRI S-ICD, or Accolade MRI pacemaker, Dr. Wu reported. There was temporary asynchronous pacing but no sustained response in the company’s U125 Valitude pacemaker.

Using the Medtronic Visia AF MRI ICD, the researchers found that the iPhone 12 Pro Max was able to trigger magnet reversion mode at a distance up to 1.5 cm (0.6 inch) from the anterior aspect of the device ex vivo.

The difference in magnet response to the iPhone 12 Pro Max among the different devices is likely due to different hall-sensor magnet sensitivity, as all of the devices were susceptible to a standard donut magnet, Dr. Wu noted. Boston Scientific’s Accolade MRI pacemaker, for example, requires a magnet stronger than 70 G to activate magnet mode, according to the product manual.

“Even so, sometimes with our test, we were able to trigger a brief response,” he said. “The response isn’t as lasting as some of the other companies, but with the small sample size, I can only speculate and suggest that maybe it’s possible. But we always want a formal study through the company or other agencies to really pinpoint which company has more susceptible devices.”

As to whether manufacturers should build CIEDs less susceptible to today’s stronger magnets, Dr. Wu said it’s worth exploring, but there are pros and cons.

Although magnets in consumer devices have the potential to inhibit lifesaving therapies, a magnet is also very useful in certain medical settings, such as a quick way to ensure pacing without worrying about electrocautery noise during surgery or to deactivate a defibrillator if there’s noise resulting in inappropriate shocks.

“It would require an overhaul of a lot of the devices going forward, and I think that’s something that’s worth exploring, especially now that a lot of devices are using wireless communication, Bluetooth, and other communication technology,” he said.

Even though the study is small, Dr. Wu said, it does represent many of the available devices and has clinical implications, given that people often put their smartphones in a breast pocket.

“This report highlights the importance of public awareness regarding an interaction between CIEDs and a recently released smartphone model with magnetic charging capability,” Dr. Wu and colleagues conclude.

Apple was contacted for comment but had not responded at press time.

The authors reported no study funding or relevant conflicts of interests.

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

Further evidence that powerful magnets in some Apple iPhones can interfere with cardiac implantable electronic devices (CIEDs) comes from a small study that also suggests some devices are more susceptible than others.

The iPhone 12 Pro Max with MagSafe technology interfered with CIEDs implanted in three consecutive patients presenting to an electrophysiology lab and in 8 of 11 implantable cardioverter defibrillators (ICDs) and pacemakers (72.7%) still in their original packaging.

The results, published in the Journal of the American Heart Association, are consistent with a widely publicized single-patient report this February and evidence of electromagnetic interference with fitness wristbands and e-cigarettes.

The MagSafe technology supports wireless charging and is optimized by a ring-shaped array of magnets. Although magnet mode activation has been shown to occur in CIEDs with exposure to a magnetic field as low as 10 gauss, the field strength of the iPhone 12 Pro Max can be greater than 50 G when in direct contact, the researchers determined.

“If this becomes a standard in a lot of the new smartphones or companies start to use stronger magnets ... then we will see more and more of these consumer electronic and device interactions,” senior author Michael Wu, MD, Brown University, Providence, R.I., told this news organization.

In a May advisory on these device interactions, the U.S. Food and Drug Administration also cautioned that the number of consumer electronics with strong magnets is expected to increase over time.

That trend appears to be already underway, with Forbes reporting in February that the MagSafe batteries will be “getting stronger” as part of upgrades to the iPhone 13 and Bloomberg reporting in advance of Apple’s annual developers conference this week that an upgraded version of MagSafe is in the works to support wireless charging for its iPad. MagSafe has not been used previously in iPads.

Although Apple has acknowledged that the iPhone 12 contains more magnets than previous iPhone models, it says “they’re not expected to pose a greater risk of magnetic interference to medical devices than prior iPhone models.” The company maintains a page that specifically warns about the potential for interactions and advises that consumers keep the iPhone and MagSafe accessories more than 15 cm (6 inches) away from medical devices.

Older-generation iPhones have not shown this risk, with only one case of interference reported with the iPhone 6 and an Apple Watch in 1,352 tests among 148 patients with CIEDs and leads from four different manufacturers.

In the present study, magnet reversion mode was triggered in all three patients when the iPhone 12 Pro Max was placed on the skin over the device.

The phone inhibited tachycardia therapies in Medtronic’s Amplia MRI Quad CRT-D and Abbott’s 1231-40 Fortify VR device.

The Boston Scientific V273 Intua CRT-P device, however, “appeared to be less susceptible, as we were only able to elicit transient temporary asynchronous pacing but no sustained response by the iPhone 12 Pro Max magnet,” Dr. Wu and colleagues note.

Among the 11 ex vivo CIEDs tested, placing the iPhone 12 Pro Max directly over the packaged device inhibited tachytherapies in Medtronic’s Visia AF MRI ICD and Abbott’s Fortify Assura DR ICD and Ellipse DR ICD.

The phone also led to asynchronous pacing in Medtronic’s Azure, Advisa MRI, and Adapta pacemakers and in Abbott’s Assurity MRI pacemaker.

Boston Scientific devices again “appeared to be less susceptible, as no clear magnet interference” was noted in the Dynagen ICD, Emblem MRI S-ICD, or Accolade MRI pacemaker, Dr. Wu reported. There was temporary asynchronous pacing but no sustained response in the company’s U125 Valitude pacemaker.

Using the Medtronic Visia AF MRI ICD, the researchers found that the iPhone 12 Pro Max was able to trigger magnet reversion mode at a distance up to 1.5 cm (0.6 inch) from the anterior aspect of the device ex vivo.

The difference in magnet response to the iPhone 12 Pro Max among the different devices is likely due to different hall-sensor magnet sensitivity, as all of the devices were susceptible to a standard donut magnet, Dr. Wu noted. Boston Scientific’s Accolade MRI pacemaker, for example, requires a magnet stronger than 70 G to activate magnet mode, according to the product manual.

“Even so, sometimes with our test, we were able to trigger a brief response,” he said. “The response isn’t as lasting as some of the other companies, but with the small sample size, I can only speculate and suggest that maybe it’s possible. But we always want a formal study through the company or other agencies to really pinpoint which company has more susceptible devices.”

As to whether manufacturers should build CIEDs less susceptible to today’s stronger magnets, Dr. Wu said it’s worth exploring, but there are pros and cons.

Although magnets in consumer devices have the potential to inhibit lifesaving therapies, a magnet is also very useful in certain medical settings, such as a quick way to ensure pacing without worrying about electrocautery noise during surgery or to deactivate a defibrillator if there’s noise resulting in inappropriate shocks.

“It would require an overhaul of a lot of the devices going forward, and I think that’s something that’s worth exploring, especially now that a lot of devices are using wireless communication, Bluetooth, and other communication technology,” he said.

Even though the study is small, Dr. Wu said, it does represent many of the available devices and has clinical implications, given that people often put their smartphones in a breast pocket.

“This report highlights the importance of public awareness regarding an interaction between CIEDs and a recently released smartphone model with magnetic charging capability,” Dr. Wu and colleagues conclude.

Apple was contacted for comment but had not responded at press time.

The authors reported no study funding or relevant conflicts of interests.

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

Inhibiting granulocyte/macrophage–colony stimulating factor (GM-CSF) with mavrilimumab prevented some patients with severe COVID-19 pneumonia and hyperinflammation from needing mechanical ventilation and reduced their risk of dying versus placebo in a phase 2 study.

There was no difference in outcomes between the two doses of mavrilimumab used in the trial (6 mg/kg or 10 mg/kg) and combined data showed a higher percentage of patients achieving the primary endpoint of being alive and free of mechanical ventilation at 29 days, at 87%, versus placebo, at 74%.

The P value was 0.12, “which achieved the prespecified evidentiary standard of 0.2,” according to Lara Pupim, MD, vice president of clinical research and development at Kiniksa Pharmaceuticals in Lexington, Mass.

Importantly, there was a 61% reduction in the risk of dying if patients had received mavrilimumab rather than placebo, she reported at the annual European Congress of Rheumatology. Mortality at day 29 was 21% in the placebo arm but just 8% in the combined mavrilimumab arms (P = .07).

Hendrik Schulze-Koops, MD, called it a “surprising study” and that “the outcome is very spectacular” in his short appraisal of the study during the Clinical Highlights session on the final day of the congress.

Mavrilimumab was “a compound that we would not have thought that would have such an impact on the outcome of COVID-19 infected patients,” Dr. Schulze-Koops of Ludwig Maximilian University of Munich added.

In this small study, “there was a consistent suggestion of a biological effect across key endpoints,” Richard Conway, MBChB, PhD, a consultant rheumatologist at St. James’s Hospital in Dublin, pointed out in an interview.

“Similar to tocilizumab, the benefits with mavrilimumab appear to be in addition to those seen with glucocorticoids, as 96% of patients received dexamethasone,” Dr. Conway observed. Furthermore, nearly one-third received antiviral or remdesivir treatment.

“This study was likely underpowered to assess a clinically meaningful benefit,” he said, adding that “there is insufficient evidence at present to begin using mavrilimumab as an alternative to currently available agents.” That said, “these results are promising for future studies.”

Rationale for GM-CSF inhibition with mavrilimumab in COVID-19 pneumonia

“The cytokine GM-CSF is vital to both lung homeostasis and regulation of inflammation in autoimmunity,” Dr. Pupim explained.

She added that “GM-CSF is implicated in the mechanism of aberrant immune cell infiltration and activation in the lungs, and it may contribute to respiratory failure and death in patients with severe COVID-19 pneumonia and systemic hyperinflammation.”

The efficacy and safety of blocking GM-CSF with mavrilimumab have been shown previously in phase 2 studies in other diseases, Dr. Pupim noted. This includes patients with rheumatoid arthritis and those with giant cell arteritis.

“It was hypothesized that GM-CSF receptor–alpha blockade may reduce infiltration of pathogenic cells into the lung and may suppress inflammation in COVID-19 pneumonia in hyperinflammation,” she explained.

Study details and other outcome results

The study presented by Dr. Pupim was a phase 2/3 double-blind, placebo-controlled trial predominantly conducted in Brazil, the United States, and South Africa, with some participation in Peru and Chile.

Patients were eligible for inclusion if they had had a positive COVID-19 test within 14 days of randomization and had been hospitalized but not ventilated. Evidence of bilateral pneumonia on chest x-ray or CT scan and clinical laboratory evidence indicative of hyperinflammation were also prerequisites for study enrollment.

The ongoing study comprised two cohorts, Dr. Pupim explained: patients who have not been ventilated and those who have recently been ventilated. Dr. Pupim presented the data on the nonventilated cohort, noting that there was a total of 116 patients aged a mean of 57 years.

Patients were randomized to one of three treatment arms: two groups received a single intravenous infusion of mavrilimumab, either 6 mg/kg or 10 mg/kg, and the third group got a placebo.

“Using a time-to-event approach, looking at mechanical ventilation-free survival, mavrilimumab recipients experienced a 65% reduction in the risk of mechanical ventilation or death,” Dr. Pupim said (P = .0175).

“Separation in the Kaplan-Meier curves was evident very early after study drug administration,” she added.

There were trends toward a faster benefit with mavrilimumab than placebo in two other key secondary endpoints: the median time to achieving a two-point clinical improvement (7 vs. 11 days) and the median time to room air (7 vs. 9 days).

Timing of mavrilimumab administration and safety

Study coauthor and chief clinical development officer at Kiniksa, Arian Pano, MD, answered questions on the presentation. When asked about the timing of giving mavrilimumab, he said: “Based on these data it is before they go to ventilation, as soon as you have symptoms of hyperinflammation and a need for oxygen.”

Mavrilimumab is given as a single infusion “and has been well tolerated; virtually no interruptions occurred in this study.”

No serious adverse events related to mavrilimumab were seen, and adverse events, including secondary infections, which are known complications of COVID-19, occurred less frequently in mavrilimumab recipients, compared with placebo.

Dr. Pupim reported that there was a case of tuberculosis in one patient treated with mavrilimumab (10 mg/kg). That case had occurred in an “endemic area for tuberculosis,” and the patient had been screened before entry but only via a sputum sample.

“Prior to these events, the patient received high-dose corticosteroids, a known risk factor for reactivation of TB, and thus the potential additive contribution of mavrilimumab, if any, is uncertain.” Dr. Pupim said.

“Thrombotic events, another known complication of COVID-19, occurred in the placebo arm only,” she added.

Dr. Pano commented that the study has now “seamlessly continued to phase 3. So, basically, we did not stop the study. At the end of phase 2, we just locked the database and collected the data.” Both the 6 mg/kg and 10 mg/kg are being studied, but it’s “very likely [that] 6 mg/kg could be the dose that we may bring forward to the clinic in terms of registration, but that’s at this point in time. We will need to wait for the phase 3 data,” he observed. Those findings will hopefully be available later this year.

Kiniksa funded the study. Dr. Pupim, Dr. Pano, and multiple study coinvestigators are employees of the company.

Dr. Schulze-Koops was not involved in the study and had no specific disclosures. Dr. Conway had no financial disclosures to make in relation to his comments.

Inhibiting granulocyte/macrophage–colony stimulating factor (GM-CSF) with mavrilimumab prevented some patients with severe COVID-19 pneumonia and hyperinflammation from needing mechanical ventilation and reduced their risk of dying versus placebo in a phase 2 study.

There was no difference in outcomes between the two doses of mavrilimumab used in the trial (6 mg/kg or 10 mg/kg) and combined data showed a higher percentage of patients achieving the primary endpoint of being alive and free of mechanical ventilation at 29 days, at 87%, versus placebo, at 74%.

The P value was 0.12, “which achieved the prespecified evidentiary standard of 0.2,” according to Lara Pupim, MD, vice president of clinical research and development at Kiniksa Pharmaceuticals in Lexington, Mass.

Importantly, there was a 61% reduction in the risk of dying if patients had received mavrilimumab rather than placebo, she reported at the annual European Congress of Rheumatology. Mortality at day 29 was 21% in the placebo arm but just 8% in the combined mavrilimumab arms (P = .07).

Hendrik Schulze-Koops, MD, called it a “surprising study” and that “the outcome is very spectacular” in his short appraisal of the study during the Clinical Highlights session on the final day of the congress.

Mavrilimumab was “a compound that we would not have thought that would have such an impact on the outcome of COVID-19 infected patients,” Dr. Schulze-Koops of Ludwig Maximilian University of Munich added.

In this small study, “there was a consistent suggestion of a biological effect across key endpoints,” Richard Conway, MBChB, PhD, a consultant rheumatologist at St. James’s Hospital in Dublin, pointed out in an interview.

“Similar to tocilizumab, the benefits with mavrilimumab appear to be in addition to those seen with glucocorticoids, as 96% of patients received dexamethasone,” Dr. Conway observed. Furthermore, nearly one-third received antiviral or remdesivir treatment.

“This study was likely underpowered to assess a clinically meaningful benefit,” he said, adding that “there is insufficient evidence at present to begin using mavrilimumab as an alternative to currently available agents.” That said, “these results are promising for future studies.”

Rationale for GM-CSF inhibition with mavrilimumab in COVID-19 pneumonia

“The cytokine GM-CSF is vital to both lung homeostasis and regulation of inflammation in autoimmunity,” Dr. Pupim explained.

She added that “GM-CSF is implicated in the mechanism of aberrant immune cell infiltration and activation in the lungs, and it may contribute to respiratory failure and death in patients with severe COVID-19 pneumonia and systemic hyperinflammation.”

The efficacy and safety of blocking GM-CSF with mavrilimumab have been shown previously in phase 2 studies in other diseases, Dr. Pupim noted. This includes patients with rheumatoid arthritis and those with giant cell arteritis.

“It was hypothesized that GM-CSF receptor–alpha blockade may reduce infiltration of pathogenic cells into the lung and may suppress inflammation in COVID-19 pneumonia in hyperinflammation,” she explained.

Study details and other outcome results

The study presented by Dr. Pupim was a phase 2/3 double-blind, placebo-controlled trial predominantly conducted in Brazil, the United States, and South Africa, with some participation in Peru and Chile.

Patients were eligible for inclusion if they had had a positive COVID-19 test within 14 days of randomization and had been hospitalized but not ventilated. Evidence of bilateral pneumonia on chest x-ray or CT scan and clinical laboratory evidence indicative of hyperinflammation were also prerequisites for study enrollment.

The ongoing study comprised two cohorts, Dr. Pupim explained: patients who have not been ventilated and those who have recently been ventilated. Dr. Pupim presented the data on the nonventilated cohort, noting that there was a total of 116 patients aged a mean of 57 years.

Patients were randomized to one of three treatment arms: two groups received a single intravenous infusion of mavrilimumab, either 6 mg/kg or 10 mg/kg, and the third group got a placebo.

“Using a time-to-event approach, looking at mechanical ventilation-free survival, mavrilimumab recipients experienced a 65% reduction in the risk of mechanical ventilation or death,” Dr. Pupim said (P = .0175).

“Separation in the Kaplan-Meier curves was evident very early after study drug administration,” she added.

There were trends toward a faster benefit with mavrilimumab than placebo in two other key secondary endpoints: the median time to achieving a two-point clinical improvement (7 vs. 11 days) and the median time to room air (7 vs. 9 days).

Timing of mavrilimumab administration and safety

Study coauthor and chief clinical development officer at Kiniksa, Arian Pano, MD, answered questions on the presentation. When asked about the timing of giving mavrilimumab, he said: “Based on these data it is before they go to ventilation, as soon as you have symptoms of hyperinflammation and a need for oxygen.”

Mavrilimumab is given as a single infusion “and has been well tolerated; virtually no interruptions occurred in this study.”

No serious adverse events related to mavrilimumab were seen, and adverse events, including secondary infections, which are known complications of COVID-19, occurred less frequently in mavrilimumab recipients, compared with placebo.

Dr. Pupim reported that there was a case of tuberculosis in one patient treated with mavrilimumab (10 mg/kg). That case had occurred in an “endemic area for tuberculosis,” and the patient had been screened before entry but only via a sputum sample.

“Prior to these events, the patient received high-dose corticosteroids, a known risk factor for reactivation of TB, and thus the potential additive contribution of mavrilimumab, if any, is uncertain.” Dr. Pupim said.

“Thrombotic events, another known complication of COVID-19, occurred in the placebo arm only,” she added.

Dr. Pano commented that the study has now “seamlessly continued to phase 3. So, basically, we did not stop the study. At the end of phase 2, we just locked the database and collected the data.” Both the 6 mg/kg and 10 mg/kg are being studied, but it’s “very likely [that] 6 mg/kg could be the dose that we may bring forward to the clinic in terms of registration, but that’s at this point in time. We will need to wait for the phase 3 data,” he observed. Those findings will hopefully be available later this year.

Kiniksa funded the study. Dr. Pupim, Dr. Pano, and multiple study coinvestigators are employees of the company.

Dr. Schulze-Koops was not involved in the study and had no specific disclosures. Dr. Conway had no financial disclosures to make in relation to his comments.

Inhibiting granulocyte/macrophage–colony stimulating factor (GM-CSF) with mavrilimumab prevented some patients with severe COVID-19 pneumonia and hyperinflammation from needing mechanical ventilation and reduced their risk of dying versus placebo in a phase 2 study.

There was no difference in outcomes between the two doses of mavrilimumab used in the trial (6 mg/kg or 10 mg/kg) and combined data showed a higher percentage of patients achieving the primary endpoint of being alive and free of mechanical ventilation at 29 days, at 87%, versus placebo, at 74%.

The P value was 0.12, “which achieved the prespecified evidentiary standard of 0.2,” according to Lara Pupim, MD, vice president of clinical research and development at Kiniksa Pharmaceuticals in Lexington, Mass.

Importantly, there was a 61% reduction in the risk of dying if patients had received mavrilimumab rather than placebo, she reported at the annual European Congress of Rheumatology. Mortality at day 29 was 21% in the placebo arm but just 8% in the combined mavrilimumab arms (P = .07).

Hendrik Schulze-Koops, MD, called it a “surprising study” and that “the outcome is very spectacular” in his short appraisal of the study during the Clinical Highlights session on the final day of the congress.

Mavrilimumab was “a compound that we would not have thought that would have such an impact on the outcome of COVID-19 infected patients,” Dr. Schulze-Koops of Ludwig Maximilian University of Munich added.

In this small study, “there was a consistent suggestion of a biological effect across key endpoints,” Richard Conway, MBChB, PhD, a consultant rheumatologist at St. James’s Hospital in Dublin, pointed out in an interview.

“Similar to tocilizumab, the benefits with mavrilimumab appear to be in addition to those seen with glucocorticoids, as 96% of patients received dexamethasone,” Dr. Conway observed. Furthermore, nearly one-third received antiviral or remdesivir treatment.

“This study was likely underpowered to assess a clinically meaningful benefit,” he said, adding that “there is insufficient evidence at present to begin using mavrilimumab as an alternative to currently available agents.” That said, “these results are promising for future studies.”

Rationale for GM-CSF inhibition with mavrilimumab in COVID-19 pneumonia

“The cytokine GM-CSF is vital to both lung homeostasis and regulation of inflammation in autoimmunity,” Dr. Pupim explained.

She added that “GM-CSF is implicated in the mechanism of aberrant immune cell infiltration and activation in the lungs, and it may contribute to respiratory failure and death in patients with severe COVID-19 pneumonia and systemic hyperinflammation.”

The efficacy and safety of blocking GM-CSF with mavrilimumab have been shown previously in phase 2 studies in other diseases, Dr. Pupim noted. This includes patients with rheumatoid arthritis and those with giant cell arteritis.

“It was hypothesized that GM-CSF receptor–alpha blockade may reduce infiltration of pathogenic cells into the lung and may suppress inflammation in COVID-19 pneumonia in hyperinflammation,” she explained.

Study details and other outcome results

The study presented by Dr. Pupim was a phase 2/3 double-blind, placebo-controlled trial predominantly conducted in Brazil, the United States, and South Africa, with some participation in Peru and Chile.

Patients were eligible for inclusion if they had had a positive COVID-19 test within 14 days of randomization and had been hospitalized but not ventilated. Evidence of bilateral pneumonia on chest x-ray or CT scan and clinical laboratory evidence indicative of hyperinflammation were also prerequisites for study enrollment.

The ongoing study comprised two cohorts, Dr. Pupim explained: patients who have not been ventilated and those who have recently been ventilated. Dr. Pupim presented the data on the nonventilated cohort, noting that there was a total of 116 patients aged a mean of 57 years.

Patients were randomized to one of three treatment arms: two groups received a single intravenous infusion of mavrilimumab, either 6 mg/kg or 10 mg/kg, and the third group got a placebo.

“Using a time-to-event approach, looking at mechanical ventilation-free survival, mavrilimumab recipients experienced a 65% reduction in the risk of mechanical ventilation or death,” Dr. Pupim said (P = .0175).

“Separation in the Kaplan-Meier curves was evident very early after study drug administration,” she added.

There were trends toward a faster benefit with mavrilimumab than placebo in two other key secondary endpoints: the median time to achieving a two-point clinical improvement (7 vs. 11 days) and the median time to room air (7 vs. 9 days).

Timing of mavrilimumab administration and safety

Study coauthor and chief clinical development officer at Kiniksa, Arian Pano, MD, answered questions on the presentation. When asked about the timing of giving mavrilimumab, he said: “Based on these data it is before they go to ventilation, as soon as you have symptoms of hyperinflammation and a need for oxygen.”

Mavrilimumab is given as a single infusion “and has been well tolerated; virtually no interruptions occurred in this study.”

No serious adverse events related to mavrilimumab were seen, and adverse events, including secondary infections, which are known complications of COVID-19, occurred less frequently in mavrilimumab recipients, compared with placebo.

Dr. Pupim reported that there was a case of tuberculosis in one patient treated with mavrilimumab (10 mg/kg). That case had occurred in an “endemic area for tuberculosis,” and the patient had been screened before entry but only via a sputum sample.

“Prior to these events, the patient received high-dose corticosteroids, a known risk factor for reactivation of TB, and thus the potential additive contribution of mavrilimumab, if any, is uncertain.” Dr. Pupim said.

“Thrombotic events, another known complication of COVID-19, occurred in the placebo arm only,” she added.

Dr. Pano commented that the study has now “seamlessly continued to phase 3. So, basically, we did not stop the study. At the end of phase 2, we just locked the database and collected the data.” Both the 6 mg/kg and 10 mg/kg are being studied, but it’s “very likely [that] 6 mg/kg could be the dose that we may bring forward to the clinic in terms of registration, but that’s at this point in time. We will need to wait for the phase 3 data,” he observed. Those findings will hopefully be available later this year.

Kiniksa funded the study. Dr. Pupim, Dr. Pano, and multiple study coinvestigators are employees of the company.

Dr. Schulze-Koops was not involved in the study and had no specific disclosures. Dr. Conway had no financial disclosures to make in relation to his comments.

Pandemic smoking: More or less?

The COVID-19 pandemic has changed a lot of habits in people, for better or worse. Some people may have turned to food and alcohol for comfort, while others started on health kicks to emerge from the ordeal as new people. Well, the same can be said about smokers.

artisteer/Getty Images

New evidence comes from a survey conducted from May to July 2020 of 694 current and former smokers with an average age of 53 years. All had been hospitalized prior to the pandemic and had previously participated in clinical trials to for smoking cessation in Boston, Nashville, and Pittsburgh hospitals.

Researchers found that 32% of participants smoked more, 37% smoked less, and 31% made no change in their smoking habits. By the time of the survey, 28% of former smokers had relapsed. Although 68% of the participants believed smoking increased the risk of getting COVID-19, that still didn’t stop some people from smoking more. Why?

Respondents “might have increased their smoking due to stress and boredom. On the other hand, the fear of catching COVID might have led them to cut down or quit smoking,” said lead author Nancy A. Rigotti, MD. “Even before the pandemic, tobacco smoking was the leading preventable cause of death in the United States. COVID-19 has given smokers yet another good reason to stop smoking.”

This creates an opportunity for physicians to preach the gospel to smokers about their vulnerability to respiratory disease in hopes of getting them to quit for good. We just wish the same could be said for all of our excessive pandemic online shopping.
 

3,000 years and just one pair of genomes to wear

Men and women are different. We’ll give you a moment to pick your jaw off the ground.

It makes sense though, the sexes being different, especially when you look at the broader animal kingdom. The males and females of many species are slightly different when it comes to size and shape, but there’s a big question that literally only anthropologists have asked: Were human males and females more different in the past than they are today?

Leonard Mukooli/Pixabay

To be more specific, some scientists believe that males and females grew more similar when humans shifted from a hunter-gatherer lifestyle to a farming-based lifestyle, as agriculture encouraged a more equitable division of labor. Others believe that the differences come down to random chance.

Researchers from Penn State University analyzed genomic data from over 350,000 males and females stored in the UK Biobank and looked at the recent (within the last ~3,000 years; post-agriculture adoption in Britain) evolutionary histories of these loci. Height, body mass, hip circumference, body fat percentage, and waist circumference were analyzed, and while there were thousands of differences in the genomes, only one trait occurred more frequently during that time period: Females gained a significantly higher body fat content than males.

It’s a sad day then for the millions of people who were big fans of the “farming caused men and women to become more similar” theory. Count the LOTME crew among them. Be honest: Wouldn’t life be so much simpler if men and women were exactly the same? Just think about it, no more arguments about leaving the toilet seat up. It’d be worth it just for that.
 

Proteins don’t lie

Research published in Open Biology shows that the human brain contains 14,315 different proteins. The team conducting that study wanted to find out which organ was the most similar to the old brain box, so they did protein counts for the 32 other major tissue types, including heart, salivary gland, lung, spleen, and endometrium.

Gerd Altmann/Pixabay

The tissue with the most proteins in common with the center of human intelligence? You’re thinking it has to be colon at this point, right? We were sure it was going to be colon, but it’s not.

The winner, with 13,442 shared proteins, is the testes. The testes have 15,687 proteins, of which 85.7% are shared with the brain. The researchers, sadly, did not provide protein counts for the other tissue types, but we bet colon was a close second.
 

Dreaming about COVID?

We thought we were the only ones who have been having crazy dreams lately. Each one seems crazier and more vivid than the one before. Have you been having weird dreams lately?

Unsplash/@spanic

This is likely your brain’s coping mechanism to handle your pandemic stress, according to Dr. Erik Hoel of Tufts University. Dreams that are crazy and scary might make real life seem lighter and simpler. He calls it the “overfitted brain hypothesis.”

“It is their very strangeness that gives them their biological function,” Dr. Hoel said. It literally makes you feel like COVID-19 and lockdowns aren’t as scary as they seem.

We always knew our minds were powerful things. Apparently, your brain gets tired of everyday familiarity just like you do, and it creates crazy dreams to keep things interesting.

Just remember: That recurring dream that you’re back in college and missing 10 assignments is there to help you, not scare you! Even though it is pretty scary. 

Pandemic smoking: More or less?

The COVID-19 pandemic has changed a lot of habits in people, for better or worse. Some people may have turned to food and alcohol for comfort, while others started on health kicks to emerge from the ordeal as new people. Well, the same can be said about smokers.

artisteer/Getty Images

New evidence comes from a survey conducted from May to July 2020 of 694 current and former smokers with an average age of 53 years. All had been hospitalized prior to the pandemic and had previously participated in clinical trials to for smoking cessation in Boston, Nashville, and Pittsburgh hospitals.

Researchers found that 32% of participants smoked more, 37% smoked less, and 31% made no change in their smoking habits. By the time of the survey, 28% of former smokers had relapsed. Although 68% of the participants believed smoking increased the risk of getting COVID-19, that still didn’t stop some people from smoking more. Why?

Respondents “might have increased their smoking due to stress and boredom. On the other hand, the fear of catching COVID might have led them to cut down or quit smoking,” said lead author Nancy A. Rigotti, MD. “Even before the pandemic, tobacco smoking was the leading preventable cause of death in the United States. COVID-19 has given smokers yet another good reason to stop smoking.”

This creates an opportunity for physicians to preach the gospel to smokers about their vulnerability to respiratory disease in hopes of getting them to quit for good. We just wish the same could be said for all of our excessive pandemic online shopping.
 

3,000 years and just one pair of genomes to wear

Men and women are different. We’ll give you a moment to pick your jaw off the ground.

It makes sense though, the sexes being different, especially when you look at the broader animal kingdom. The males and females of many species are slightly different when it comes to size and shape, but there’s a big question that literally only anthropologists have asked: Were human males and females more different in the past than they are today?

Leonard Mukooli/Pixabay

To be more specific, some scientists believe that males and females grew more similar when humans shifted from a hunter-gatherer lifestyle to a farming-based lifestyle, as agriculture encouraged a more equitable division of labor. Others believe that the differences come down to random chance.

Researchers from Penn State University analyzed genomic data from over 350,000 males and females stored in the UK Biobank and looked at the recent (within the last ~3,000 years; post-agriculture adoption in Britain) evolutionary histories of these loci. Height, body mass, hip circumference, body fat percentage, and waist circumference were analyzed, and while there were thousands of differences in the genomes, only one trait occurred more frequently during that time period: Females gained a significantly higher body fat content than males.

It’s a sad day then for the millions of people who were big fans of the “farming caused men and women to become more similar” theory. Count the LOTME crew among them. Be honest: Wouldn’t life be so much simpler if men and women were exactly the same? Just think about it, no more arguments about leaving the toilet seat up. It’d be worth it just for that.
 

Proteins don’t lie

Research published in Open Biology shows that the human brain contains 14,315 different proteins. The team conducting that study wanted to find out which organ was the most similar to the old brain box, so they did protein counts for the 32 other major tissue types, including heart, salivary gland, lung, spleen, and endometrium.

Gerd Altmann/Pixabay

The tissue with the most proteins in common with the center of human intelligence? You’re thinking it has to be colon at this point, right? We were sure it was going to be colon, but it’s not.

The winner, with 13,442 shared proteins, is the testes. The testes have 15,687 proteins, of which 85.7% are shared with the brain. The researchers, sadly, did not provide protein counts for the other tissue types, but we bet colon was a close second.
 

Dreaming about COVID?

We thought we were the only ones who have been having crazy dreams lately. Each one seems crazier and more vivid than the one before. Have you been having weird dreams lately?

Unsplash/@spanic

This is likely your brain’s coping mechanism to handle your pandemic stress, according to Dr. Erik Hoel of Tufts University. Dreams that are crazy and scary might make real life seem lighter and simpler. He calls it the “overfitted brain hypothesis.”

“It is their very strangeness that gives them their biological function,” Dr. Hoel said. It literally makes you feel like COVID-19 and lockdowns aren’t as scary as they seem.

We always knew our minds were powerful things. Apparently, your brain gets tired of everyday familiarity just like you do, and it creates crazy dreams to keep things interesting.

Just remember: That recurring dream that you’re back in college and missing 10 assignments is there to help you, not scare you! Even though it is pretty scary. 

Pandemic smoking: More or less?

The COVID-19 pandemic has changed a lot of habits in people, for better or worse. Some people may have turned to food and alcohol for comfort, while others started on health kicks to emerge from the ordeal as new people. Well, the same can be said about smokers.

artisteer/Getty Images

New evidence comes from a survey conducted from May to July 2020 of 694 current and former smokers with an average age of 53 years. All had been hospitalized prior to the pandemic and had previously participated in clinical trials to for smoking cessation in Boston, Nashville, and Pittsburgh hospitals.

Researchers found that 32% of participants smoked more, 37% smoked less, and 31% made no change in their smoking habits. By the time of the survey, 28% of former smokers had relapsed. Although 68% of the participants believed smoking increased the risk of getting COVID-19, that still didn’t stop some people from smoking more. Why?

Respondents “might have increased their smoking due to stress and boredom. On the other hand, the fear of catching COVID might have led them to cut down or quit smoking,” said lead author Nancy A. Rigotti, MD. “Even before the pandemic, tobacco smoking was the leading preventable cause of death in the United States. COVID-19 has given smokers yet another good reason to stop smoking.”

This creates an opportunity for physicians to preach the gospel to smokers about their vulnerability to respiratory disease in hopes of getting them to quit for good. We just wish the same could be said for all of our excessive pandemic online shopping.
 

3,000 years and just one pair of genomes to wear

Men and women are different. We’ll give you a moment to pick your jaw off the ground.

It makes sense though, the sexes being different, especially when you look at the broader animal kingdom. The males and females of many species are slightly different when it comes to size and shape, but there’s a big question that literally only anthropologists have asked: Were human males and females more different in the past than they are today?

Leonard Mukooli/Pixabay

To be more specific, some scientists believe that males and females grew more similar when humans shifted from a hunter-gatherer lifestyle to a farming-based lifestyle, as agriculture encouraged a more equitable division of labor. Others believe that the differences come down to random chance.

Researchers from Penn State University analyzed genomic data from over 350,000 males and females stored in the UK Biobank and looked at the recent (within the last ~3,000 years; post-agriculture adoption in Britain) evolutionary histories of these loci. Height, body mass, hip circumference, body fat percentage, and waist circumference were analyzed, and while there were thousands of differences in the genomes, only one trait occurred more frequently during that time period: Females gained a significantly higher body fat content than males.

It’s a sad day then for the millions of people who were big fans of the “farming caused men and women to become more similar” theory. Count the LOTME crew among them. Be honest: Wouldn’t life be so much simpler if men and women were exactly the same? Just think about it, no more arguments about leaving the toilet seat up. It’d be worth it just for that.
 

Proteins don’t lie

Research published in Open Biology shows that the human brain contains 14,315 different proteins. The team conducting that study wanted to find out which organ was the most similar to the old brain box, so they did protein counts for the 32 other major tissue types, including heart, salivary gland, lung, spleen, and endometrium.

Gerd Altmann/Pixabay

The tissue with the most proteins in common with the center of human intelligence? You’re thinking it has to be colon at this point, right? We were sure it was going to be colon, but it’s not.

The winner, with 13,442 shared proteins, is the testes. The testes have 15,687 proteins, of which 85.7% are shared with the brain. The researchers, sadly, did not provide protein counts for the other tissue types, but we bet colon was a close second.
 

Dreaming about COVID?

We thought we were the only ones who have been having crazy dreams lately. Each one seems crazier and more vivid than the one before. Have you been having weird dreams lately?

Unsplash/@spanic

This is likely your brain’s coping mechanism to handle your pandemic stress, according to Dr. Erik Hoel of Tufts University. Dreams that are crazy and scary might make real life seem lighter and simpler. He calls it the “overfitted brain hypothesis.”

“It is their very strangeness that gives them their biological function,” Dr. Hoel said. It literally makes you feel like COVID-19 and lockdowns aren’t as scary as they seem.

We always knew our minds were powerful things. Apparently, your brain gets tired of everyday familiarity just like you do, and it creates crazy dreams to keep things interesting.

Just remember: That recurring dream that you’re back in college and missing 10 assignments is there to help you, not scare you! Even though it is pretty scary. 

A new physician workforce study documents that almost all clinically active pediatric emergency physicians in the United States – 99% of them – work in urban areas, and that those who do practice in rural areas are significantly older and closer to retirement age.

The portrait of approximately 2,400 self-identified pediatric emergency medicine (EM) physicians may be unsurprising given the overall propensity of physicians – including board-certified general emergency physicians – to practice in urban areas. Even so, it underscores a decades-long concern that many children do not have access to optimal pediatric emergency care.

And the findings highlight the need, the authors say, to keep pressing to improve emergency care for a population of children with “a mortality rate that is already higher than that of its suburban and urban peers (JAMA Network Open 2021;4[5]:e2110084).”

Emergent care of pediatric patients is well within the scope of practice for physicians with training and board certification in general EM, but children and adolescents have different clinical needs and “there are high-stakes scenarios [in children] that we [as emergency physicians] don’t get exposed to as often because we’re not in a children’s hospital or we just don’t have that additional level of training,” said Christopher L. Bennett, MD, MA, of the department of emergency medicine at Stanford University and lead author of the study.

Researchers have documented that some emergency physicians have some discomfort in caring for very ill pediatric patients, he and his coauthors wrote.

Children account for more than 20% of annual ED visits, and most children who seek emergency care in the United States – upwards of 80% – present to general emergency departments. Yet the vast majority of these EDs care for fewer than 14-15 children a day.

With such low pediatric volume, “there will never be pediatric emergency medicine physicians in the rural hospitals in [our] health care system,” said Kathleen M. Brown, MD, medical director for quality and safety of the Emergency Medicine and Trauma Center at Children’s National Medical Center in Washington.

Redistribution “is not a practical solution, and we’ve known that for a long time,” said Dr. Brown, past chairperson of the American College of Emergency Physicians’ pediatric emergency medicine committee. “That’s why national efforts have focused on better preparing the general emergency department and making sure the hospital workforce is ready to take care of children ... to manage and stabilize [them] and recognize when they need more definitive care.”

Continuing efforts to increase “pediatric readiness” in general EDs is one of the recommendations issued by the American Academy of Pediatrics, ACEP, and Emergency Nurses Association in its most recent joint policy statement on emergency care for children, published in May (Pediatrics 2021;147[5]:e2021050787). A 2018 joint policy statement detailed the resources – medications, equipment, policies, and education – necessary for EDs to provide effective pediatric care (Pediatrics 2018;142[5]:e20182459).

There is some evidence that pediatric readiness has improved and that EDs with higher readiness scores may have better pediatric outcomes and lower mortality, said Dr. Brown, a coauthor of both policy statements. (One study cited in the 2018 policy statement, for example, found that children with extremity immobilization and a pain score of 5 or greater had faster management of their pain and decreased exposure to radiation when they were treated in a better-prepared facility than in a facility with less readiness.)

Yet many hospitals still do not have designated pediatric emergency care coordinators (PECCs) – roles that are widely believed to be central to pediatric readiness. PECCs (physicians and nurses) were recommended in 2006 by the then-Institute of Medicine and have been advocated by the AAP, ACEP, and other organizations.

According to 2013 data from the National Pediatric Readiness Project (NPRP), launched that year by the AAP, ACEP, ENA, and the federal Emergency Medical Services for Children program of the Health Resources and Services Administration, at least 15% of EDs lacked at least 1 piece of recommended equipment, and 81% reported barriers to pediatric emergency care guidelines. The NPRP is currently conducting an updated assessment, Dr. Brown said.

Some experts have proposed a different kind of solution – one in which American Board of Pediatrics–certified pediatric EM physicians would care for selective adult patients with common disease patterns who present to rural EDs, in addition to children. They might provide direct patient care across several hospitals in a region, while also addressing quality improvement and assisting EPs and other providers in the region on pediatric care issues.

The proposal, published in May 2020, comes from the 13-member special subcommittee of the ACEP committee on PEM that was tasked with exploring strategies to improve access to emergency pediatric expertise and disaster preparedness in all settings. The proposal was endorsed by the ACEP board of directors, said Jim Homme, MD, a coauthor of the paper (JACEP Open 2020;1:1520-6.)

“We’re saying, look at the ped-trained pediatric emergency provider more broadly. They can actually successfully care for a broader patient population and make it financially feasible ... [for that physician] to be a part of the system,” said Dr. Homme, program director of the emergency medicine residency at the Mayo Clinic College of Medicine and Science in Rochester, Minn.

“The benefit would be not only having the expertise to see children, but to train up other individuals in the institution, and be advocates for the care of children,” he said.

“We’re not saying we want a pediatrics-trained EM physician in every site so that every child would be seen by one – that’s not the goal,” Dr. Homme said. “The goal is to distribute them more broadly than they currently are, and in doing so, make available the other benefits besides direct patient care.”

Most of the physicians in the United States who identify as pediatric EM physicians have completed either a pediatrics or EM residency, followed by a pediatric EM fellowship. It is much more common to have primary training in pediatrics than in EM, said Dr. Homme and Dr. Bennett. A small number of physicians, like Dr. Homme, are dually trained in pediatrics and EM through the completion of two residencies. Dr. Bennett’s workforce study used the American Medical Association Physician Masterfile database and identified 2,403 clinically active pediatric EPs – 5% of all clinically active emergency physicians. Those practicing in rural areas had a median age of 59, compared with a median age of 46 in urban areas. More than half of the pediatric EPs – 68% – reported having pediatric EM board certification.

Three states – Montana, South Dakota, and Wyoming – had no pediatric EMs at all, Dr. Bennett noted.

Readiness in rural Oregon, New England

Torree McGowan, MD, an emergency physician with the St. Charles Health System in Oregon, works in small critical access hospitals in the rural towns of Madras and Prineville, each several hours by ground to the nearest pediatric hospital. She said she feels well equipped to care for children through her training (a rotation in a pediatric ICU and several months working in pediatric EDs) and through her ongoing work with pediatric patients. Children and adolescents comprise about 20%-30% of her volume.

She sees more pediatric illness – children with respiratory syncytial virus who need respiratory support, for instance, and children with severe asthma or diabetic ketoacidosis – than pediatric trauma. When she faces questions, uncertainties, or wants confirmation of a decision, she consults by phone with pediatric subspecialists.

“I don’t take care of kids on vasopressor drips on a regular basis [for instance],” said Dr. McGowan, who sits on ACEP’s disaster preparedness committee and is an Air Force veteran. “But I know the basics and can phone a colleague to be sure I’m doing it correctly. The ability to outreach is there.”

Telemedicine is valuable, she said, but there may also be value in working alongside a pediatric EM physician. One of her EP colleagues is fellowship-trained in ultrasonography and “leads us in training and quality control,” Dr. McGowan said. “And if she’s on shift with you she’ll teach you all about ultrasound. There’s probably utility in having a pediatric EP who does that as well. But incentivizing that and taking them away from the pediatric hospital is a paradigm shift.”

Either way, she said, “being able to bring that expertise out of urban centers, whether it’s to a hospital group like ours or whether it’s by telemedicine, is really, really helpful.”

Her group does not have official PECCs, but the joint policy statements by AAP/ACEP/ENA on pediatric readiness and the “whole pediatric readiness effort’ have been valuable in “driving conversations” with administrators about needs such as purchasing pediatric-sized video laryngoscope blades and other equipment needed for pediatric emergencies, however infrequently they may occur, Dr. McGowan said.

In New England, researchers leading a grassroots regional intervention to establish a PECC in every ED in the region have reported an increased prevalence of “pediatric champions” from less than 30% 5 years ago to greater than 90% in 2019, investigators have reported (Pediatr Emerg Care. 2021. doi: 10.1097/PEC.0000000000002456).

The initiative involved individual outreach to leaders of each ED – largely through phone and e-mail appeals – and collaboration among the State Emergency Medical Services for Children agencies and ACEP and ENA state chapters. The researchers are currently investigating the direct impact of PECCs on patient outcomes.

More on regionalization of ped-trained EPs

Dr. Bennett sees telemedicine as a primary part of improving pediatric emergency care. “I think that’s where things are going to go in pediatric emergency medicine,” he said, especially in the wake of COVID-19: “I don’t see how it’s not going to become much more common.”

Dr. Homme maintains that a broader integration of ABP-certified pediatric EM physicians into underserved regions would advance ED preparedness in a way that telemedicine, or even the appointment of PECCs, does not, said Dr. Homme.

Institutions would need to acknowledge that many of the current restrictions on pediatric EM physicians’ scope of practice are based on arbitrary age cut-offs, and their leaders would need to expand hospital-defined privileges to better align with training and capabilities, he said. Local credentialing provisions and other policies would also need to be adjusted.

Pediatric EM physicians spend at least 4 months of their graduate EM training in an adult ED, and there is significant overlap in the core competencies and the procedures considered essential for practice between pediatric EM fellowship programs and EM programs, Dr. Homme and his coauthors wrote in their proposal. “The pandemic really reinforced this concept,” Dr. Homme said. “As the number of patients in pediatric EDs plummeted, many of the ped-trained providers had to pivot and help care for adults. ... It worked great.”

The broader integration of pediatrics-trained pediatric EM physicians fits well, he believes, with current workforce dynamics. “There aren’t enough individuals coming out of an EM background and doing that subspecialty training to have any hope that they’d be able to cover these underserved areas,” he said. “And the academic pediatric workforce is getting kind of saturated. So having additional employment opportunities would be great.”

Dr. Homme pursued an EM residency after pediatrics training (rather than a pediatric EM fellowship) because he did not want to be limited geographically and because, while he wanted to focus on children, he also “wanted to be available to a larger population.”

He believes that some pediatrics-trained pediatric EM physicians would choose rural practice options, and hopes that the proposal will gain traction. Some EPs will be opposed, he said, and some pediatrics-trained EPs will not interested, “but if we can find people open to the idea on both sides, I think we can really move the needle in the direction we’re trying to, which is to disseminate an area of expertise into areas that just don’t have it.”

A new physician workforce study documents that almost all clinically active pediatric emergency physicians in the United States – 99% of them – work in urban areas, and that those who do practice in rural areas are significantly older and closer to retirement age.

The portrait of approximately 2,400 self-identified pediatric emergency medicine (EM) physicians may be unsurprising given the overall propensity of physicians – including board-certified general emergency physicians – to practice in urban areas. Even so, it underscores a decades-long concern that many children do not have access to optimal pediatric emergency care.

And the findings highlight the need, the authors say, to keep pressing to improve emergency care for a population of children with “a mortality rate that is already higher than that of its suburban and urban peers (JAMA Network Open 2021;4[5]:e2110084).”

Emergent care of pediatric patients is well within the scope of practice for physicians with training and board certification in general EM, but children and adolescents have different clinical needs and “there are high-stakes scenarios [in children] that we [as emergency physicians] don’t get exposed to as often because we’re not in a children’s hospital or we just don’t have that additional level of training,” said Christopher L. Bennett, MD, MA, of the department of emergency medicine at Stanford University and lead author of the study.

Researchers have documented that some emergency physicians have some discomfort in caring for very ill pediatric patients, he and his coauthors wrote.

Children account for more than 20% of annual ED visits, and most children who seek emergency care in the United States – upwards of 80% – present to general emergency departments. Yet the vast majority of these EDs care for fewer than 14-15 children a day.

With such low pediatric volume, “there will never be pediatric emergency medicine physicians in the rural hospitals in [our] health care system,” said Kathleen M. Brown, MD, medical director for quality and safety of the Emergency Medicine and Trauma Center at Children’s National Medical Center in Washington.

Redistribution “is not a practical solution, and we’ve known that for a long time,” said Dr. Brown, past chairperson of the American College of Emergency Physicians’ pediatric emergency medicine committee. “That’s why national efforts have focused on better preparing the general emergency department and making sure the hospital workforce is ready to take care of children ... to manage and stabilize [them] and recognize when they need more definitive care.”

Continuing efforts to increase “pediatric readiness” in general EDs is one of the recommendations issued by the American Academy of Pediatrics, ACEP, and Emergency Nurses Association in its most recent joint policy statement on emergency care for children, published in May (Pediatrics 2021;147[5]:e2021050787). A 2018 joint policy statement detailed the resources – medications, equipment, policies, and education – necessary for EDs to provide effective pediatric care (Pediatrics 2018;142[5]:e20182459).

There is some evidence that pediatric readiness has improved and that EDs with higher readiness scores may have better pediatric outcomes and lower mortality, said Dr. Brown, a coauthor of both policy statements. (One study cited in the 2018 policy statement, for example, found that children with extremity immobilization and a pain score of 5 or greater had faster management of their pain and decreased exposure to radiation when they were treated in a better-prepared facility than in a facility with less readiness.)

Yet many hospitals still do not have designated pediatric emergency care coordinators (PECCs) – roles that are widely believed to be central to pediatric readiness. PECCs (physicians and nurses) were recommended in 2006 by the then-Institute of Medicine and have been advocated by the AAP, ACEP, and other organizations.

According to 2013 data from the National Pediatric Readiness Project (NPRP), launched that year by the AAP, ACEP, ENA, and the federal Emergency Medical Services for Children program of the Health Resources and Services Administration, at least 15% of EDs lacked at least 1 piece of recommended equipment, and 81% reported barriers to pediatric emergency care guidelines. The NPRP is currently conducting an updated assessment, Dr. Brown said.

Some experts have proposed a different kind of solution – one in which American Board of Pediatrics–certified pediatric EM physicians would care for selective adult patients with common disease patterns who present to rural EDs, in addition to children. They might provide direct patient care across several hospitals in a region, while also addressing quality improvement and assisting EPs and other providers in the region on pediatric care issues.

The proposal, published in May 2020, comes from the 13-member special subcommittee of the ACEP committee on PEM that was tasked with exploring strategies to improve access to emergency pediatric expertise and disaster preparedness in all settings. The proposal was endorsed by the ACEP board of directors, said Jim Homme, MD, a coauthor of the paper (JACEP Open 2020;1:1520-6.)

“We’re saying, look at the ped-trained pediatric emergency provider more broadly. They can actually successfully care for a broader patient population and make it financially feasible ... [for that physician] to be a part of the system,” said Dr. Homme, program director of the emergency medicine residency at the Mayo Clinic College of Medicine and Science in Rochester, Minn.

“The benefit would be not only having the expertise to see children, but to train up other individuals in the institution, and be advocates for the care of children,” he said.

“We’re not saying we want a pediatrics-trained EM physician in every site so that every child would be seen by one – that’s not the goal,” Dr. Homme said. “The goal is to distribute them more broadly than they currently are, and in doing so, make available the other benefits besides direct patient care.”

Most of the physicians in the United States who identify as pediatric EM physicians have completed either a pediatrics or EM residency, followed by a pediatric EM fellowship. It is much more common to have primary training in pediatrics than in EM, said Dr. Homme and Dr. Bennett. A small number of physicians, like Dr. Homme, are dually trained in pediatrics and EM through the completion of two residencies. Dr. Bennett’s workforce study used the American Medical Association Physician Masterfile database and identified 2,403 clinically active pediatric EPs – 5% of all clinically active emergency physicians. Those practicing in rural areas had a median age of 59, compared with a median age of 46 in urban areas. More than half of the pediatric EPs – 68% – reported having pediatric EM board certification.

Three states – Montana, South Dakota, and Wyoming – had no pediatric EMs at all, Dr. Bennett noted.

Readiness in rural Oregon, New England

Torree McGowan, MD, an emergency physician with the St. Charles Health System in Oregon, works in small critical access hospitals in the rural towns of Madras and Prineville, each several hours by ground to the nearest pediatric hospital. She said she feels well equipped to care for children through her training (a rotation in a pediatric ICU and several months working in pediatric EDs) and through her ongoing work with pediatric patients. Children and adolescents comprise about 20%-30% of her volume.

She sees more pediatric illness – children with respiratory syncytial virus who need respiratory support, for instance, and children with severe asthma or diabetic ketoacidosis – than pediatric trauma. When she faces questions, uncertainties, or wants confirmation of a decision, she consults by phone with pediatric subspecialists.

“I don’t take care of kids on vasopressor drips on a regular basis [for instance],” said Dr. McGowan, who sits on ACEP’s disaster preparedness committee and is an Air Force veteran. “But I know the basics and can phone a colleague to be sure I’m doing it correctly. The ability to outreach is there.”

Telemedicine is valuable, she said, but there may also be value in working alongside a pediatric EM physician. One of her EP colleagues is fellowship-trained in ultrasonography and “leads us in training and quality control,” Dr. McGowan said. “And if she’s on shift with you she’ll teach you all about ultrasound. There’s probably utility in having a pediatric EP who does that as well. But incentivizing that and taking them away from the pediatric hospital is a paradigm shift.”

Either way, she said, “being able to bring that expertise out of urban centers, whether it’s to a hospital group like ours or whether it’s by telemedicine, is really, really helpful.”

Her group does not have official PECCs, but the joint policy statements by AAP/ACEP/ENA on pediatric readiness and the “whole pediatric readiness effort’ have been valuable in “driving conversations” with administrators about needs such as purchasing pediatric-sized video laryngoscope blades and other equipment needed for pediatric emergencies, however infrequently they may occur, Dr. McGowan said.

In New England, researchers leading a grassroots regional intervention to establish a PECC in every ED in the region have reported an increased prevalence of “pediatric champions” from less than 30% 5 years ago to greater than 90% in 2019, investigators have reported (Pediatr Emerg Care. 2021. doi: 10.1097/PEC.0000000000002456).

The initiative involved individual outreach to leaders of each ED – largely through phone and e-mail appeals – and collaboration among the State Emergency Medical Services for Children agencies and ACEP and ENA state chapters. The researchers are currently investigating the direct impact of PECCs on patient outcomes.

More on regionalization of ped-trained EPs

Dr. Bennett sees telemedicine as a primary part of improving pediatric emergency care. “I think that’s where things are going to go in pediatric emergency medicine,” he said, especially in the wake of COVID-19: “I don’t see how it’s not going to become much more common.”

Dr. Homme maintains that a broader integration of ABP-certified pediatric EM physicians into underserved regions would advance ED preparedness in a way that telemedicine, or even the appointment of PECCs, does not, said Dr. Homme.

Institutions would need to acknowledge that many of the current restrictions on pediatric EM physicians’ scope of practice are based on arbitrary age cut-offs, and their leaders would need to expand hospital-defined privileges to better align with training and capabilities, he said. Local credentialing provisions and other policies would also need to be adjusted.

Pediatric EM physicians spend at least 4 months of their graduate EM training in an adult ED, and there is significant overlap in the core competencies and the procedures considered essential for practice between pediatric EM fellowship programs and EM programs, Dr. Homme and his coauthors wrote in their proposal. “The pandemic really reinforced this concept,” Dr. Homme said. “As the number of patients in pediatric EDs plummeted, many of the ped-trained providers had to pivot and help care for adults. ... It worked great.”

The broader integration of pediatrics-trained pediatric EM physicians fits well, he believes, with current workforce dynamics. “There aren’t enough individuals coming out of an EM background and doing that subspecialty training to have any hope that they’d be able to cover these underserved areas,” he said. “And the academic pediatric workforce is getting kind of saturated. So having additional employment opportunities would be great.”

Dr. Homme pursued an EM residency after pediatrics training (rather than a pediatric EM fellowship) because he did not want to be limited geographically and because, while he wanted to focus on children, he also “wanted to be available to a larger population.”

He believes that some pediatrics-trained pediatric EM physicians would choose rural practice options, and hopes that the proposal will gain traction. Some EPs will be opposed, he said, and some pediatrics-trained EPs will not interested, “but if we can find people open to the idea on both sides, I think we can really move the needle in the direction we’re trying to, which is to disseminate an area of expertise into areas that just don’t have it.”

A new physician workforce study documents that almost all clinically active pediatric emergency physicians in the United States – 99% of them – work in urban areas, and that those who do practice in rural areas are significantly older and closer to retirement age.

The portrait of approximately 2,400 self-identified pediatric emergency medicine (EM) physicians may be unsurprising given the overall propensity of physicians – including board-certified general emergency physicians – to practice in urban areas. Even so, it underscores a decades-long concern that many children do not have access to optimal pediatric emergency care.

And the findings highlight the need, the authors say, to keep pressing to improve emergency care for a population of children with “a mortality rate that is already higher than that of its suburban and urban peers (JAMA Network Open 2021;4[5]:e2110084).”

Emergent care of pediatric patients is well within the scope of practice for physicians with training and board certification in general EM, but children and adolescents have different clinical needs and “there are high-stakes scenarios [in children] that we [as emergency physicians] don’t get exposed to as often because we’re not in a children’s hospital or we just don’t have that additional level of training,” said Christopher L. Bennett, MD, MA, of the department of emergency medicine at Stanford University and lead author of the study.

Researchers have documented that some emergency physicians have some discomfort in caring for very ill pediatric patients, he and his coauthors wrote.

Children account for more than 20% of annual ED visits, and most children who seek emergency care in the United States – upwards of 80% – present to general emergency departments. Yet the vast majority of these EDs care for fewer than 14-15 children a day.

With such low pediatric volume, “there will never be pediatric emergency medicine physicians in the rural hospitals in [our] health care system,” said Kathleen M. Brown, MD, medical director for quality and safety of the Emergency Medicine and Trauma Center at Children’s National Medical Center in Washington.

Redistribution “is not a practical solution, and we’ve known that for a long time,” said Dr. Brown, past chairperson of the American College of Emergency Physicians’ pediatric emergency medicine committee. “That’s why national efforts have focused on better preparing the general emergency department and making sure the hospital workforce is ready to take care of children ... to manage and stabilize [them] and recognize when they need more definitive care.”

Continuing efforts to increase “pediatric readiness” in general EDs is one of the recommendations issued by the American Academy of Pediatrics, ACEP, and Emergency Nurses Association in its most recent joint policy statement on emergency care for children, published in May (Pediatrics 2021;147[5]:e2021050787). A 2018 joint policy statement detailed the resources – medications, equipment, policies, and education – necessary for EDs to provide effective pediatric care (Pediatrics 2018;142[5]:e20182459).

There is some evidence that pediatric readiness has improved and that EDs with higher readiness scores may have better pediatric outcomes and lower mortality, said Dr. Brown, a coauthor of both policy statements. (One study cited in the 2018 policy statement, for example, found that children with extremity immobilization and a pain score of 5 or greater had faster management of their pain and decreased exposure to radiation when they were treated in a better-prepared facility than in a facility with less readiness.)

Yet many hospitals still do not have designated pediatric emergency care coordinators (PECCs) – roles that are widely believed to be central to pediatric readiness. PECCs (physicians and nurses) were recommended in 2006 by the then-Institute of Medicine and have been advocated by the AAP, ACEP, and other organizations.

According to 2013 data from the National Pediatric Readiness Project (NPRP), launched that year by the AAP, ACEP, ENA, and the federal Emergency Medical Services for Children program of the Health Resources and Services Administration, at least 15% of EDs lacked at least 1 piece of recommended equipment, and 81% reported barriers to pediatric emergency care guidelines. The NPRP is currently conducting an updated assessment, Dr. Brown said.

Some experts have proposed a different kind of solution – one in which American Board of Pediatrics–certified pediatric EM physicians would care for selective adult patients with common disease patterns who present to rural EDs, in addition to children. They might provide direct patient care across several hospitals in a region, while also addressing quality improvement and assisting EPs and other providers in the region on pediatric care issues.

The proposal, published in May 2020, comes from the 13-member special subcommittee of the ACEP committee on PEM that was tasked with exploring strategies to improve access to emergency pediatric expertise and disaster preparedness in all settings. The proposal was endorsed by the ACEP board of directors, said Jim Homme, MD, a coauthor of the paper (JACEP Open 2020;1:1520-6.)

“We’re saying, look at the ped-trained pediatric emergency provider more broadly. They can actually successfully care for a broader patient population and make it financially feasible ... [for that physician] to be a part of the system,” said Dr. Homme, program director of the emergency medicine residency at the Mayo Clinic College of Medicine and Science in Rochester, Minn.

“The benefit would be not only having the expertise to see children, but to train up other individuals in the institution, and be advocates for the care of children,” he said.

“We’re not saying we want a pediatrics-trained EM physician in every site so that every child would be seen by one – that’s not the goal,” Dr. Homme said. “The goal is to distribute them more broadly than they currently are, and in doing so, make available the other benefits besides direct patient care.”

Most of the physicians in the United States who identify as pediatric EM physicians have completed either a pediatrics or EM residency, followed by a pediatric EM fellowship. It is much more common to have primary training in pediatrics than in EM, said Dr. Homme and Dr. Bennett. A small number of physicians, like Dr. Homme, are dually trained in pediatrics and EM through the completion of two residencies. Dr. Bennett’s workforce study used the American Medical Association Physician Masterfile database and identified 2,403 clinically active pediatric EPs – 5% of all clinically active emergency physicians. Those practicing in rural areas had a median age of 59, compared with a median age of 46 in urban areas. More than half of the pediatric EPs – 68% – reported having pediatric EM board certification.

Three states – Montana, South Dakota, and Wyoming – had no pediatric EMs at all, Dr. Bennett noted.

Readiness in rural Oregon, New England

Torree McGowan, MD, an emergency physician with the St. Charles Health System in Oregon, works in small critical access hospitals in the rural towns of Madras and Prineville, each several hours by ground to the nearest pediatric hospital. She said she feels well equipped to care for children through her training (a rotation in a pediatric ICU and several months working in pediatric EDs) and through her ongoing work with pediatric patients. Children and adolescents comprise about 20%-30% of her volume.

She sees more pediatric illness – children with respiratory syncytial virus who need respiratory support, for instance, and children with severe asthma or diabetic ketoacidosis – than pediatric trauma. When she faces questions, uncertainties, or wants confirmation of a decision, she consults by phone with pediatric subspecialists.

“I don’t take care of kids on vasopressor drips on a regular basis [for instance],” said Dr. McGowan, who sits on ACEP’s disaster preparedness committee and is an Air Force veteran. “But I know the basics and can phone a colleague to be sure I’m doing it correctly. The ability to outreach is there.”

Telemedicine is valuable, she said, but there may also be value in working alongside a pediatric EM physician. One of her EP colleagues is fellowship-trained in ultrasonography and “leads us in training and quality control,” Dr. McGowan said. “And if she’s on shift with you she’ll teach you all about ultrasound. There’s probably utility in having a pediatric EP who does that as well. But incentivizing that and taking them away from the pediatric hospital is a paradigm shift.”

Either way, she said, “being able to bring that expertise out of urban centers, whether it’s to a hospital group like ours or whether it’s by telemedicine, is really, really helpful.”

Her group does not have official PECCs, but the joint policy statements by AAP/ACEP/ENA on pediatric readiness and the “whole pediatric readiness effort’ have been valuable in “driving conversations” with administrators about needs such as purchasing pediatric-sized video laryngoscope blades and other equipment needed for pediatric emergencies, however infrequently they may occur, Dr. McGowan said.

In New England, researchers leading a grassroots regional intervention to establish a PECC in every ED in the region have reported an increased prevalence of “pediatric champions” from less than 30% 5 years ago to greater than 90% in 2019, investigators have reported (Pediatr Emerg Care. 2021. doi: 10.1097/PEC.0000000000002456).

The initiative involved individual outreach to leaders of each ED – largely through phone and e-mail appeals – and collaboration among the State Emergency Medical Services for Children agencies and ACEP and ENA state chapters. The researchers are currently investigating the direct impact of PECCs on patient outcomes.

More on regionalization of ped-trained EPs

Dr. Bennett sees telemedicine as a primary part of improving pediatric emergency care. “I think that’s where things are going to go in pediatric emergency medicine,” he said, especially in the wake of COVID-19: “I don’t see how it’s not going to become much more common.”

Dr. Homme maintains that a broader integration of ABP-certified pediatric EM physicians into underserved regions would advance ED preparedness in a way that telemedicine, or even the appointment of PECCs, does not, said Dr. Homme.

Institutions would need to acknowledge that many of the current restrictions on pediatric EM physicians’ scope of practice are based on arbitrary age cut-offs, and their leaders would need to expand hospital-defined privileges to better align with training and capabilities, he said. Local credentialing provisions and other policies would also need to be adjusted.

Pediatric EM physicians spend at least 4 months of their graduate EM training in an adult ED, and there is significant overlap in the core competencies and the procedures considered essential for practice between pediatric EM fellowship programs and EM programs, Dr. Homme and his coauthors wrote in their proposal. “The pandemic really reinforced this concept,” Dr. Homme said. “As the number of patients in pediatric EDs plummeted, many of the ped-trained providers had to pivot and help care for adults. ... It worked great.”

The broader integration of pediatrics-trained pediatric EM physicians fits well, he believes, with current workforce dynamics. “There aren’t enough individuals coming out of an EM background and doing that subspecialty training to have any hope that they’d be able to cover these underserved areas,” he said. “And the academic pediatric workforce is getting kind of saturated. So having additional employment opportunities would be great.”

Dr. Homme pursued an EM residency after pediatrics training (rather than a pediatric EM fellowship) because he did not want to be limited geographically and because, while he wanted to focus on children, he also “wanted to be available to a larger population.”

He believes that some pediatrics-trained pediatric EM physicians would choose rural practice options, and hopes that the proposal will gain traction. Some EPs will be opposed, he said, and some pediatrics-trained EPs will not interested, “but if we can find people open to the idea on both sides, I think we can really move the needle in the direction we’re trying to, which is to disseminate an area of expertise into areas that just don’t have it.”

It follows that, as the prevalence of obesity among people with type 1 diabetes mellitus (T1DM) increases, so would the incidence of nonalcoholic fatty liver (NAFL), as it does in type 2 diabetes.

However, researchers in Finland report that the incidence of NAFL in T1DM is much lower, and that the use of the waist-to-height ratio to calculate midsection girth could be a low-cost alternative to MRI and computed tomography to more precisely diagnose NAFL in T1DM.

In a cross-sectional analysis of 121 adults with T1DM in the Finnish Diabetic Nephropathy study, known as FinnDiane, researchers from the University of Helsinki report in Diabetes Care that a waist-to-height ratio of 0.5 showed a relatively high rate of accuracy for identifying NAFL that was statistically significant (P = .04).

Lead author Erika B. Parente, MD, PhD, a researcher at the Folkhälsän Research Center in Helsinki, noted that the findings do not identify any causality between what the researchers called visceral adiposity and NAFL. “As long as they have accumulation of fat in the center of body and they can develop this low-grade inflammation that also goes to insulin-load sensitivity, people with T1DM can accumulate fat in the liver as do people with T2DM and the general population,” she said in an interview.

These findings build on her group’s previous work published in Scientific Reports showing a strong relationship between waist-to-height ratio and visceral fat percentage in adults with T1DM. The most recent FinnDiane analysis found no similar relationship between NAFL and fat tissue in the hips, arms and legs, and total adipose tissue.
 

Better than BMI as a measure

“We also found that waist-to-height ratio is better than body mass index to identify those individuals at higher risk of having NAFL,” Dr. Parente said. However, it’s not possible to predict which patients referred to imaging evaluation after being screened by waist-to-height ratio of 0.5 will surely have NAFL, she added.

That answer, she said, would require a longitudinal and cost-effectiveness study with larger population.

The waist-to-height ratio cutoff of 0.5 showed an 86% sensitivity and 55% specificity for NAFL, whereas BMI of 26.6 kg/m² showed an 79% sensitivity and 57% specificity.

“The most important message from our research is that health care professionals should be aware that individuals with T1DM can have NAFL, and waist-to-height ratio may help to identify those at higher risk,” she said.

The prevalence of NAFL among the adults with T1DM in the study was 11.6%, which is lower than the prevalence other studies reported in T2DM – 76% in a U.S. study – and in the general population – ranging from 19% to 46%. This underscores, Dr. Parente noted, the importance of using waist-to-height ratio in T1DM patients to determine the status of NAFL.

She said that few studies have investigated the consequences of NAFL in T1DM, pointing to two that linked NAFL with chronic kidney disease and cardiovascular disease in T1DM (Diabetes Care. 2014;37:1729-36; J Hepatol. 2010;53:713-8). “Most of the studies about the consequences of NAFL included people with T2DM,” she said. “From our research, we cannot conclude about the impact of NAFL in cardiovascular or kidney complications in our population because this is a cross-sectional study.”

That question may be answered by a future follow-up study of the ongoing FinnDiane study, she said.

The study is a “good reminder” that people with central adiposity and metabolic syndrome can develop NAFL disease, said Jeanne Marie Clark, MD, MPH, of Johns Hopkins University, Baltimore. “Even patients we may not think of having insulin resistance, such as those with T1DM.”

However, Dr. Clark added, “I do not think we can really determine which measure of central adiposity is best.” She noted that the study was “pretty small” with only 14 patients who had NAFL disease. “Waist-to-height ratio is certainly a reasonable option,” she added. “Waist circumference alone is known to be a strong predictor. I would say some measure is better than none, and it should be more routine in clinical practice.”

Dr. Parente disclosed financial relationships with Eli Lilly, Abbott, AstraZeneca, Sanofi, and Boehringer Ingelheim. Two of eight coauthors disclosed financial relationships with AbbVie, Astellas, AstraZeneca, Bayer, Boehringer Ingelheim, Eli Lilly, Elo Water, Fresenius, GE Healthcare, Medscape, Merck Sharpe and Dohme, Mundipharma, Novo Nordisk, Peer-Voice, Sanofi, and Sciarc. The remaining coauthors had no disclosures.

Dr. Clark had no disclosures.

It follows that, as the prevalence of obesity among people with type 1 diabetes mellitus (T1DM) increases, so would the incidence of nonalcoholic fatty liver (NAFL), as it does in type 2 diabetes.

However, researchers in Finland report that the incidence of NAFL in T1DM is much lower, and that the use of the waist-to-height ratio to calculate midsection girth could be a low-cost alternative to MRI and computed tomography to more precisely diagnose NAFL in T1DM.

In a cross-sectional analysis of 121 adults with T1DM in the Finnish Diabetic Nephropathy study, known as FinnDiane, researchers from the University of Helsinki report in Diabetes Care that a waist-to-height ratio of 0.5 showed a relatively high rate of accuracy for identifying NAFL that was statistically significant (P = .04).

Lead author Erika B. Parente, MD, PhD, a researcher at the Folkhälsän Research Center in Helsinki, noted that the findings do not identify any causality between what the researchers called visceral adiposity and NAFL. “As long as they have accumulation of fat in the center of body and they can develop this low-grade inflammation that also goes to insulin-load sensitivity, people with T1DM can accumulate fat in the liver as do people with T2DM and the general population,” she said in an interview.

These findings build on her group’s previous work published in Scientific Reports showing a strong relationship between waist-to-height ratio and visceral fat percentage in adults with T1DM. The most recent FinnDiane analysis found no similar relationship between NAFL and fat tissue in the hips, arms and legs, and total adipose tissue.
 

Better than BMI as a measure

“We also found that waist-to-height ratio is better than body mass index to identify those individuals at higher risk of having NAFL,” Dr. Parente said. However, it’s not possible to predict which patients referred to imaging evaluation after being screened by waist-to-height ratio of 0.5 will surely have NAFL, she added.

That answer, she said, would require a longitudinal and cost-effectiveness study with larger population.

The waist-to-height ratio cutoff of 0.5 showed an 86% sensitivity and 55% specificity for NAFL, whereas BMI of 26.6 kg/m² showed an 79% sensitivity and 57% specificity.

“The most important message from our research is that health care professionals should be aware that individuals with T1DM can have NAFL, and waist-to-height ratio may help to identify those at higher risk,” she said.

The prevalence of NAFL among the adults with T1DM in the study was 11.6%, which is lower than the prevalence other studies reported in T2DM – 76% in a U.S. study – and in the general population – ranging from 19% to 46%. This underscores, Dr. Parente noted, the importance of using waist-to-height ratio in T1DM patients to determine the status of NAFL.

She said that few studies have investigated the consequences of NAFL in T1DM, pointing to two that linked NAFL with chronic kidney disease and cardiovascular disease in T1DM (Diabetes Care. 2014;37:1729-36; J Hepatol. 2010;53:713-8). “Most of the studies about the consequences of NAFL included people with T2DM,” she said. “From our research, we cannot conclude about the impact of NAFL in cardiovascular or kidney complications in our population because this is a cross-sectional study.”

That question may be answered by a future follow-up study of the ongoing FinnDiane study, she said.

The study is a “good reminder” that people with central adiposity and metabolic syndrome can develop NAFL disease, said Jeanne Marie Clark, MD, MPH, of Johns Hopkins University, Baltimore. “Even patients we may not think of having insulin resistance, such as those with T1DM.”

However, Dr. Clark added, “I do not think we can really determine which measure of central adiposity is best.” She noted that the study was “pretty small” with only 14 patients who had NAFL disease. “Waist-to-height ratio is certainly a reasonable option,” she added. “Waist circumference alone is known to be a strong predictor. I would say some measure is better than none, and it should be more routine in clinical practice.”

Dr. Parente disclosed financial relationships with Eli Lilly, Abbott, AstraZeneca, Sanofi, and Boehringer Ingelheim. Two of eight coauthors disclosed financial relationships with AbbVie, Astellas, AstraZeneca, Bayer, Boehringer Ingelheim, Eli Lilly, Elo Water, Fresenius, GE Healthcare, Medscape, Merck Sharpe and Dohme, Mundipharma, Novo Nordisk, Peer-Voice, Sanofi, and Sciarc. The remaining coauthors had no disclosures.

Dr. Clark had no disclosures.

It follows that, as the prevalence of obesity among people with type 1 diabetes mellitus (T1DM) increases, so would the incidence of nonalcoholic fatty liver (NAFL), as it does in type 2 diabetes.

However, researchers in Finland report that the incidence of NAFL in T1DM is much lower, and that the use of the waist-to-height ratio to calculate midsection girth could be a low-cost alternative to MRI and computed tomography to more precisely diagnose NAFL in T1DM.

In a cross-sectional analysis of 121 adults with T1DM in the Finnish Diabetic Nephropathy study, known as FinnDiane, researchers from the University of Helsinki report in Diabetes Care that a waist-to-height ratio of 0.5 showed a relatively high rate of accuracy for identifying NAFL that was statistically significant (P = .04).

Lead author Erika B. Parente, MD, PhD, a researcher at the Folkhälsän Research Center in Helsinki, noted that the findings do not identify any causality between what the researchers called visceral adiposity and NAFL. “As long as they have accumulation of fat in the center of body and they can develop this low-grade inflammation that also goes to insulin-load sensitivity, people with T1DM can accumulate fat in the liver as do people with T2DM and the general population,” she said in an interview.

These findings build on her group’s previous work published in Scientific Reports showing a strong relationship between waist-to-height ratio and visceral fat percentage in adults with T1DM. The most recent FinnDiane analysis found no similar relationship between NAFL and fat tissue in the hips, arms and legs, and total adipose tissue.
 

Better than BMI as a measure

“We also found that waist-to-height ratio is better than body mass index to identify those individuals at higher risk of having NAFL,” Dr. Parente said. However, it’s not possible to predict which patients referred to imaging evaluation after being screened by waist-to-height ratio of 0.5 will surely have NAFL, she added.

That answer, she said, would require a longitudinal and cost-effectiveness study with larger population.

The waist-to-height ratio cutoff of 0.5 showed an 86% sensitivity and 55% specificity for NAFL, whereas BMI of 26.6 kg/m² showed an 79% sensitivity and 57% specificity.

“The most important message from our research is that health care professionals should be aware that individuals with T1DM can have NAFL, and waist-to-height ratio may help to identify those at higher risk,” she said.

The prevalence of NAFL among the adults with T1DM in the study was 11.6%, which is lower than the prevalence other studies reported in T2DM – 76% in a U.S. study – and in the general population – ranging from 19% to 46%. This underscores, Dr. Parente noted, the importance of using waist-to-height ratio in T1DM patients to determine the status of NAFL.

She said that few studies have investigated the consequences of NAFL in T1DM, pointing to two that linked NAFL with chronic kidney disease and cardiovascular disease in T1DM (Diabetes Care. 2014;37:1729-36; J Hepatol. 2010;53:713-8). “Most of the studies about the consequences of NAFL included people with T2DM,” she said. “From our research, we cannot conclude about the impact of NAFL in cardiovascular or kidney complications in our population because this is a cross-sectional study.”

That question may be answered by a future follow-up study of the ongoing FinnDiane study, she said.

The study is a “good reminder” that people with central adiposity and metabolic syndrome can develop NAFL disease, said Jeanne Marie Clark, MD, MPH, of Johns Hopkins University, Baltimore. “Even patients we may not think of having insulin resistance, such as those with T1DM.”

However, Dr. Clark added, “I do not think we can really determine which measure of central adiposity is best.” She noted that the study was “pretty small” with only 14 patients who had NAFL disease. “Waist-to-height ratio is certainly a reasonable option,” she added. “Waist circumference alone is known to be a strong predictor. I would say some measure is better than none, and it should be more routine in clinical practice.”

Dr. Parente disclosed financial relationships with Eli Lilly, Abbott, AstraZeneca, Sanofi, and Boehringer Ingelheim. Two of eight coauthors disclosed financial relationships with AbbVie, Astellas, AstraZeneca, Bayer, Boehringer Ingelheim, Eli Lilly, Elo Water, Fresenius, GE Healthcare, Medscape, Merck Sharpe and Dohme, Mundipharma, Novo Nordisk, Peer-Voice, Sanofi, and Sciarc. The remaining coauthors had no disclosures.

Dr. Clark had no disclosures.

The CDC director is urging parents to vaccinate their teenagers against COVID-19, citing a study that shows increasing hospitalizations rates for adolescents.

“I am deeply concerned by the numbers of hospitalized adolescents and saddened to see the number of adolescents who required treatment in intensive care units or mechanical ventilation,” CDC Director Rochelle Walensky, MD, said in a statement.

While urging teenagers to wear masks and take precautions around others, she asked “parents, relatives, and close friends to join me and talk with teens about the importance of these prevention strategies and to encourage them to get vaccinated.”

Dr. Walensky referred to the CDC’s Morbidity and Mortality Weekly Report that showed adolescent hospitalizations peaked at 2.1 per 100,000 in early January 2021, then dropped to 0.6 per 100,000 in mid-March.

Alarmingly, hospitalizations rose to 1.3 per 100,000 in April, and a number of teens required serious interventions.

“Among hospitalized adolescents, nearly one-third required intensive care unit admission, and 5% required invasive mechanical ventilation,” the report said. No deaths occurred.

The study looked at 376 adolescents aged 12-17 who were hospitalized and tested positive for coronavirus. Of that group, 204 were hospitalized for COVID-19 and the other 172 were hospitalized for reasons not directly related to COVID-19.

Of the 204 hospitalized for COVID-19, 70.6% had an underlying medical condition such as obesity or chronic lung disease.

The study noted that children and teenagers have lower hospitalization rates and generally show less severe symptoms than do older people.

Possible causes for the rise in adolescent COVID-19 hospitalizations include the arrival of variants, the growing number of children returning to in-person education, and the changes in mask-wearing and other safety precautions, the study said.

The American Academy of Pediatrics said that as of May 27, 4 million children have tested positive for COVID-19 since the pandemic began, with about 34,500 new child cases reported for the week ending May 27.

The AAP said children have represented 14.1% of total cases since the pandemic began, but for the week ending May 27, children represented 24.3% of new reported weekly COVID-19 cases.

On May 10, the FDA granted emergency use authorization for the Pfizer coronavirus vaccine to be given to children aged 12-15 years. Previously, the FDA had authorized the Pfizer vaccine for people aged 16 years and up, whereas the Moderna and Johnson & Johnson vaccines are authorized for people aged 18 years and up.

“Vaccination is our way out of this pandemic,” Dr. Walensky said in her statement. “I continue to see promising signs in CDC data that we are nearing the end of this pandemic in this country; however, we all have to do our part and get vaccinated to cross the finish line.”
 

A version of this article was first published on WebMD.com.

The CDC director is urging parents to vaccinate their teenagers against COVID-19, citing a study that shows increasing hospitalizations rates for adolescents.

“I am deeply concerned by the numbers of hospitalized adolescents and saddened to see the number of adolescents who required treatment in intensive care units or mechanical ventilation,” CDC Director Rochelle Walensky, MD, said in a statement.

While urging teenagers to wear masks and take precautions around others, she asked “parents, relatives, and close friends to join me and talk with teens about the importance of these prevention strategies and to encourage them to get vaccinated.”

Dr. Walensky referred to the CDC’s Morbidity and Mortality Weekly Report that showed adolescent hospitalizations peaked at 2.1 per 100,000 in early January 2021, then dropped to 0.6 per 100,000 in mid-March.

Alarmingly, hospitalizations rose to 1.3 per 100,000 in April, and a number of teens required serious interventions.

“Among hospitalized adolescents, nearly one-third required intensive care unit admission, and 5% required invasive mechanical ventilation,” the report said. No deaths occurred.

The study looked at 376 adolescents aged 12-17 who were hospitalized and tested positive for coronavirus. Of that group, 204 were hospitalized for COVID-19 and the other 172 were hospitalized for reasons not directly related to COVID-19.

Of the 204 hospitalized for COVID-19, 70.6% had an underlying medical condition such as obesity or chronic lung disease.

The study noted that children and teenagers have lower hospitalization rates and generally show less severe symptoms than do older people.

Possible causes for the rise in adolescent COVID-19 hospitalizations include the arrival of variants, the growing number of children returning to in-person education, and the changes in mask-wearing and other safety precautions, the study said.

The American Academy of Pediatrics said that as of May 27, 4 million children have tested positive for COVID-19 since the pandemic began, with about 34,500 new child cases reported for the week ending May 27.

The AAP said children have represented 14.1% of total cases since the pandemic began, but for the week ending May 27, children represented 24.3% of new reported weekly COVID-19 cases.

On May 10, the FDA granted emergency use authorization for the Pfizer coronavirus vaccine to be given to children aged 12-15 years. Previously, the FDA had authorized the Pfizer vaccine for people aged 16 years and up, whereas the Moderna and Johnson & Johnson vaccines are authorized for people aged 18 years and up.

“Vaccination is our way out of this pandemic,” Dr. Walensky said in her statement. “I continue to see promising signs in CDC data that we are nearing the end of this pandemic in this country; however, we all have to do our part and get vaccinated to cross the finish line.”
 

A version of this article was first published on WebMD.com.

The CDC director is urging parents to vaccinate their teenagers against COVID-19, citing a study that shows increasing hospitalizations rates for adolescents.

“I am deeply concerned by the numbers of hospitalized adolescents and saddened to see the number of adolescents who required treatment in intensive care units or mechanical ventilation,” CDC Director Rochelle Walensky, MD, said in a statement.

While urging teenagers to wear masks and take precautions around others, she asked “parents, relatives, and close friends to join me and talk with teens about the importance of these prevention strategies and to encourage them to get vaccinated.”

Dr. Walensky referred to the CDC’s Morbidity and Mortality Weekly Report that showed adolescent hospitalizations peaked at 2.1 per 100,000 in early January 2021, then dropped to 0.6 per 100,000 in mid-March.

Alarmingly, hospitalizations rose to 1.3 per 100,000 in April, and a number of teens required serious interventions.

“Among hospitalized adolescents, nearly one-third required intensive care unit admission, and 5% required invasive mechanical ventilation,” the report said. No deaths occurred.

The study looked at 376 adolescents aged 12-17 who were hospitalized and tested positive for coronavirus. Of that group, 204 were hospitalized for COVID-19 and the other 172 were hospitalized for reasons not directly related to COVID-19.

Of the 204 hospitalized for COVID-19, 70.6% had an underlying medical condition such as obesity or chronic lung disease.

The study noted that children and teenagers have lower hospitalization rates and generally show less severe symptoms than do older people.

Possible causes for the rise in adolescent COVID-19 hospitalizations include the arrival of variants, the growing number of children returning to in-person education, and the changes in mask-wearing and other safety precautions, the study said.

The American Academy of Pediatrics said that as of May 27, 4 million children have tested positive for COVID-19 since the pandemic began, with about 34,500 new child cases reported for the week ending May 27.

The AAP said children have represented 14.1% of total cases since the pandemic began, but for the week ending May 27, children represented 24.3% of new reported weekly COVID-19 cases.

On May 10, the FDA granted emergency use authorization for the Pfizer coronavirus vaccine to be given to children aged 12-15 years. Previously, the FDA had authorized the Pfizer vaccine for people aged 16 years and up, whereas the Moderna and Johnson & Johnson vaccines are authorized for people aged 18 years and up.

“Vaccination is our way out of this pandemic,” Dr. Walensky said in her statement. “I continue to see promising signs in CDC data that we are nearing the end of this pandemic in this country; however, we all have to do our part and get vaccinated to cross the finish line.”
 

A version of this article was first published on WebMD.com.