COVID-19 Updates

As the COVID-19 pandemic winds down – for the time being at least – efforts are ramping up to develop next-generation vaccines that can protect against future novel coronaviruses and variants. Several projects are presenting clever combinations of viral parts to the immune system that evoke a robust and hopefully lasting response.

The coming generation of “pan” vaccines aims to tamp down SARS-CoV-2, its closest relatives, and whatever may come into tamer respiratory viruses like the common cold. Whatever the eventual components of this new generation of vaccines, experts agree on the goal: preventing severe disease and death. And a broader approach is critical.

“All the vaccines have been amazing. But we’re playing a whack-a-mole game with the variants. We need to take a step back and ask if a pan-variant vaccine is possible. That’s important because Omicron isn’t the last variant,” said Jacob Lemieux, MD, PhD, instructor in medicine and infectious disease specialist at Massachusetts General Hospital, Boston.
 

A broad spectrum vaccine

The drive to create a vaccine that would deter multiple coronaviruses arose early, among many researchers. An article published in Nature in May 2020 by National Institute of Allergy and Infectious Diseases researcher Luca T. Giurgea, MD, and colleagues said it all in the title: “Universal coronavirus vaccines: the time to start is now.”

Their concerns? The diversity of bat coronaviruses poised to jump into humans; the high mutability of the spike gene that the immune response recognizes; and the persistence of mutations in an RNA virus, which can’t repair errors. 

Work on broader vaccines began in several labs as SARS-CoV-2 spawned variant after variant.

On Sept. 28, NIAID announced funding for developing ‘pan-coronavirus’ vaccines – the quotation marks theirs to indicate that a magic bullet against any new coronavirus is unrealistic. “These new awards are designed to look ahead and prepare for the next generation of coronaviruses with pandemic potential,” said NIAID director Anthony S. Fauci, MD. An initial three awards went to groups at the University of Wisconsin, Brigham and Women’s Hospital, and Duke University.

President Biden mentioned the NIAID funding in his State of the Union Address. He also talked about how the Biomedical Advanced Research and Development Authority, founded in 2006 to prepare for public health emergencies, is spearheading development of new vaccine platforms and vaccines that target a broader swath of pathogen parts.

Meanwhile, individual researchers from eclectic fields are finding new ways to prevent future pandemics.

Artem Babaian, PhD, a computational biologist at the University of Cambridge (England), had the idea to probe National Institutes of Health genome databases, going back more than a decade, for overlooked novel coronaviruses. He started the project while he was between jobs as the pandemic was unfurling, using a telltale enzyme unique to the RNA viruses to fish out COVID cousins. The work is published in Nature and the data freely available at serratus.io.

Among the nearly 132,000 novel RNA viruses Dr. Babaian’s team found, 9 were from previously unrecognized coronaviruses. The novel nine came from “ecologically diverse sources”: a seahorse, an axolotl, an eel, and several fishes. Deciphering the topographies of these coronaviruses may provide clues to developing vaccines that stay ahead of future pandemics.

But optics are important in keeping expectations reasonable. “‘Universal vaccine’ is a misnomer. I think about it as ‘broad spectrum vaccines.’ It’s critical to be up front that these vaccines can never guarantee immunity against all coronaviruses. There are no absolutes in biology, but they hopefully will work against the dangers that we do know exist. A vaccine that mimics exposure to many coronaviruses could protect against a currently unknown coronavirus, especially if slower-evolving antigens are included,” Dr. Babaian said in an interview.

Nikolai Petrovsky, MD, PhD, of Flinders University, Adelaide, and the biotechnology company Vaccine Pty, agrees, calling a literal pan-coronavirus vaccine a “pipe dream. What I do think is achievable is a broadly protective, pan–CoV-19 vaccine – I can say that because we have already developed and tested it, combining antigens rather than trying just one that can do everything.”
 

Immunity lures

The broader vaccines in development display viral antigens, such as spike proteins, to the immune system on diverse frameworks. Here are a few approaches.

Ferritin nanoparticles: A candidate vaccine from the emerging infectious diseases branch of Water Reed National Military Medical Center began phase 1 human trials in April 2021. Called SpFN, the vaccine consists of arrays of ferritin nanoparticles linked to spike proteins from various variants and species. Ferritin is a protein that binds and stores iron in the body.

“The repetitive and ordered display of the coronavirus spike protein on a multifaced nanoparticle may stimulate immunity in such a way as to translate into significantly broader protection,” said Walter Reed’s branch director and vaccine coinventor Kayvon Modjarrad, MD, PhD.

A second vaccine targets only the “bullseye” part of the spike that the virus uses to attach and gain access to human cells, called the receptor-binding domain (RBD), of SARS-CoV-2 variants and of the virus behind the original SARS. The preclinical data appeared in Science Translational Medicine.

Barton Haynes, MD and colleagues at the Duke Human Vaccine Institute are also using ferritin to design and develop a “pan-betacoronavirus vaccine,” referring to the genus to which SARS-CoV-2 belongs. They say their results in macaques, published in Nature, “demonstrate that current mRNA-based vaccines may provide some protection from future outbreaks of zoonotic betacoronaviruses.”

Mosaic nanoparticles: Graduate student Alexander Cohen is leading an effort at CalTech, in the lab of Pamela Bjorkman, PhD, that uses nanoparticles consisting of proteins from a bacterium (Strep pyogenes) to which RBDs from spike proteins of four or eight different betacoronaviruses are attached. The strategy demonstrates that the whole is greater than the sum of the parts.

“Alex’s results show that it is possible to raise diverse neutralizing antibody responses, even against coronavirus strains that were not represented on the injected nanoparticle. We are hopeful that this technology could be used to protect against future animal coronaviruses that cross into humans,” said Dr. Björkman. The work appeared in Science.

Candidate vaccines from Inovio Pharmaceuticals also use a mosaic spike strategy, but with DNA rings (plasmids) rather than nanoparticles. One version works against pre-Omicron variants and is being tested against Omicron, and another with “pan–COVID-19” coverage has tested well in animal models. Inovio’s vaccines are delivered into the skin using a special device that applies an electric pulse that increases the cells’ permeability.

Chimeric spikes: Yet another approach is to fashion vaccines from various parts of the betacoronaviruses that are most closely related to SARS-CoV-2 – the pathogens behind Middle East respiratory syndrome and severe acute respiratory syndrome as well as several bat viruses and a few pangolin ones. The abundance and ubiquity of these viruses provide a toolbox of sorts, with instructions written in the language of RNA, from which to select, dissect, recombine, and customize vaccines.

“SARS-like viruses can recombine and exhibit great genetic diversity in several parts of the genome. We designed chimeric spikes to improve coverage of a multiplexed vaccine,” said David Martinez, PhD.

His team at the University of North Carolina at Chapel Hill has developed mRNA vaccines that deliver “scrambled coronavirus spikes” representing various parts, not just the RBD, as described in Science.

In mice, the chimeric vaccines elicit robust T- and B-cell immune responses, which stimulate antibody production and control other facets of building immunity.
 

Beyond the spike bullseye

The challenge of developing pan-coronavirus vaccines is dual. “The very best vaccines are highly specific to each strain, and the universal vaccines have to sacrifice effectiveness to get broad coverage. Life is a trade-off.” Dr. Petrovsky told this news organization. 

Efforts to broaden vaccine efficacy venture beyond targeting the RBD bullseyes of the spike triplets that festoon the virus. Some projects are focusing on less changeable spike parts that are more alike among less closely related coronaviruses than is the mutation-prone RBD. For example, the peptides that twist into the “stem-helix” portion of the part of the spike that adheres to host cells are the basis of some candidate vaccines now in preclinical studies.

Still other vaccines aren’t spike based at all. French company Osivax, for example, is working on a vaccine that targets the nucleocapsid protein that shields the viral RNA. The hope is that presenting various faces of the pathogen may spark immunity beyond an initial antibody rush and evoke more diverse and lasting T-cell responses.

With the myriad efforts to back up the first generation of COVID-19 vaccines with new ones offering broader protection, it appears that science may have finally learned from history.

“After the SARS outbreak, we lost interest and failed to complete development of a vaccine for use in case of a recurrent outbreak. We must not make the same mistake again,” Dr. Giurgea and colleagues wrote in their Nature article about universal coronavirus vaccines.

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

As the COVID-19 pandemic winds down – for the time being at least – efforts are ramping up to develop next-generation vaccines that can protect against future novel coronaviruses and variants. Several projects are presenting clever combinations of viral parts to the immune system that evoke a robust and hopefully lasting response.

The coming generation of “pan” vaccines aims to tamp down SARS-CoV-2, its closest relatives, and whatever may come into tamer respiratory viruses like the common cold. Whatever the eventual components of this new generation of vaccines, experts agree on the goal: preventing severe disease and death. And a broader approach is critical.

“All the vaccines have been amazing. But we’re playing a whack-a-mole game with the variants. We need to take a step back and ask if a pan-variant vaccine is possible. That’s important because Omicron isn’t the last variant,” said Jacob Lemieux, MD, PhD, instructor in medicine and infectious disease specialist at Massachusetts General Hospital, Boston.
 

A broad spectrum vaccine

The drive to create a vaccine that would deter multiple coronaviruses arose early, among many researchers. An article published in Nature in May 2020 by National Institute of Allergy and Infectious Diseases researcher Luca T. Giurgea, MD, and colleagues said it all in the title: “Universal coronavirus vaccines: the time to start is now.”

Their concerns? The diversity of bat coronaviruses poised to jump into humans; the high mutability of the spike gene that the immune response recognizes; and the persistence of mutations in an RNA virus, which can’t repair errors. 

Work on broader vaccines began in several labs as SARS-CoV-2 spawned variant after variant.

On Sept. 28, NIAID announced funding for developing ‘pan-coronavirus’ vaccines – the quotation marks theirs to indicate that a magic bullet against any new coronavirus is unrealistic. “These new awards are designed to look ahead and prepare for the next generation of coronaviruses with pandemic potential,” said NIAID director Anthony S. Fauci, MD. An initial three awards went to groups at the University of Wisconsin, Brigham and Women’s Hospital, and Duke University.

President Biden mentioned the NIAID funding in his State of the Union Address. He also talked about how the Biomedical Advanced Research and Development Authority, founded in 2006 to prepare for public health emergencies, is spearheading development of new vaccine platforms and vaccines that target a broader swath of pathogen parts.

Meanwhile, individual researchers from eclectic fields are finding new ways to prevent future pandemics.

Artem Babaian, PhD, a computational biologist at the University of Cambridge (England), had the idea to probe National Institutes of Health genome databases, going back more than a decade, for overlooked novel coronaviruses. He started the project while he was between jobs as the pandemic was unfurling, using a telltale enzyme unique to the RNA viruses to fish out COVID cousins. The work is published in Nature and the data freely available at serratus.io.

Among the nearly 132,000 novel RNA viruses Dr. Babaian’s team found, 9 were from previously unrecognized coronaviruses. The novel nine came from “ecologically diverse sources”: a seahorse, an axolotl, an eel, and several fishes. Deciphering the topographies of these coronaviruses may provide clues to developing vaccines that stay ahead of future pandemics.

But optics are important in keeping expectations reasonable. “‘Universal vaccine’ is a misnomer. I think about it as ‘broad spectrum vaccines.’ It’s critical to be up front that these vaccines can never guarantee immunity against all coronaviruses. There are no absolutes in biology, but they hopefully will work against the dangers that we do know exist. A vaccine that mimics exposure to many coronaviruses could protect against a currently unknown coronavirus, especially if slower-evolving antigens are included,” Dr. Babaian said in an interview.

Nikolai Petrovsky, MD, PhD, of Flinders University, Adelaide, and the biotechnology company Vaccine Pty, agrees, calling a literal pan-coronavirus vaccine a “pipe dream. What I do think is achievable is a broadly protective, pan–CoV-19 vaccine – I can say that because we have already developed and tested it, combining antigens rather than trying just one that can do everything.”
 

Immunity lures

The broader vaccines in development display viral antigens, such as spike proteins, to the immune system on diverse frameworks. Here are a few approaches.

Ferritin nanoparticles: A candidate vaccine from the emerging infectious diseases branch of Water Reed National Military Medical Center began phase 1 human trials in April 2021. Called SpFN, the vaccine consists of arrays of ferritin nanoparticles linked to spike proteins from various variants and species. Ferritin is a protein that binds and stores iron in the body.

“The repetitive and ordered display of the coronavirus spike protein on a multifaced nanoparticle may stimulate immunity in such a way as to translate into significantly broader protection,” said Walter Reed’s branch director and vaccine coinventor Kayvon Modjarrad, MD, PhD.

A second vaccine targets only the “bullseye” part of the spike that the virus uses to attach and gain access to human cells, called the receptor-binding domain (RBD), of SARS-CoV-2 variants and of the virus behind the original SARS. The preclinical data appeared in Science Translational Medicine.

Barton Haynes, MD and colleagues at the Duke Human Vaccine Institute are also using ferritin to design and develop a “pan-betacoronavirus vaccine,” referring to the genus to which SARS-CoV-2 belongs. They say their results in macaques, published in Nature, “demonstrate that current mRNA-based vaccines may provide some protection from future outbreaks of zoonotic betacoronaviruses.”

Mosaic nanoparticles: Graduate student Alexander Cohen is leading an effort at CalTech, in the lab of Pamela Bjorkman, PhD, that uses nanoparticles consisting of proteins from a bacterium (Strep pyogenes) to which RBDs from spike proteins of four or eight different betacoronaviruses are attached. The strategy demonstrates that the whole is greater than the sum of the parts.

“Alex’s results show that it is possible to raise diverse neutralizing antibody responses, even against coronavirus strains that were not represented on the injected nanoparticle. We are hopeful that this technology could be used to protect against future animal coronaviruses that cross into humans,” said Dr. Björkman. The work appeared in Science.

Candidate vaccines from Inovio Pharmaceuticals also use a mosaic spike strategy, but with DNA rings (plasmids) rather than nanoparticles. One version works against pre-Omicron variants and is being tested against Omicron, and another with “pan–COVID-19” coverage has tested well in animal models. Inovio’s vaccines are delivered into the skin using a special device that applies an electric pulse that increases the cells’ permeability.

Chimeric spikes: Yet another approach is to fashion vaccines from various parts of the betacoronaviruses that are most closely related to SARS-CoV-2 – the pathogens behind Middle East respiratory syndrome and severe acute respiratory syndrome as well as several bat viruses and a few pangolin ones. The abundance and ubiquity of these viruses provide a toolbox of sorts, with instructions written in the language of RNA, from which to select, dissect, recombine, and customize vaccines.

“SARS-like viruses can recombine and exhibit great genetic diversity in several parts of the genome. We designed chimeric spikes to improve coverage of a multiplexed vaccine,” said David Martinez, PhD.

His team at the University of North Carolina at Chapel Hill has developed mRNA vaccines that deliver “scrambled coronavirus spikes” representing various parts, not just the RBD, as described in Science.

In mice, the chimeric vaccines elicit robust T- and B-cell immune responses, which stimulate antibody production and control other facets of building immunity.
 

Beyond the spike bullseye

The challenge of developing pan-coronavirus vaccines is dual. “The very best vaccines are highly specific to each strain, and the universal vaccines have to sacrifice effectiveness to get broad coverage. Life is a trade-off.” Dr. Petrovsky told this news organization. 

Efforts to broaden vaccine efficacy venture beyond targeting the RBD bullseyes of the spike triplets that festoon the virus. Some projects are focusing on less changeable spike parts that are more alike among less closely related coronaviruses than is the mutation-prone RBD. For example, the peptides that twist into the “stem-helix” portion of the part of the spike that adheres to host cells are the basis of some candidate vaccines now in preclinical studies.

Still other vaccines aren’t spike based at all. French company Osivax, for example, is working on a vaccine that targets the nucleocapsid protein that shields the viral RNA. The hope is that presenting various faces of the pathogen may spark immunity beyond an initial antibody rush and evoke more diverse and lasting T-cell responses.

With the myriad efforts to back up the first generation of COVID-19 vaccines with new ones offering broader protection, it appears that science may have finally learned from history.

“After the SARS outbreak, we lost interest and failed to complete development of a vaccine for use in case of a recurrent outbreak. We must not make the same mistake again,” Dr. Giurgea and colleagues wrote in their Nature article about universal coronavirus vaccines.

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

As the COVID-19 pandemic winds down – for the time being at least – efforts are ramping up to develop next-generation vaccines that can protect against future novel coronaviruses and variants. Several projects are presenting clever combinations of viral parts to the immune system that evoke a robust and hopefully lasting response.

The coming generation of “pan” vaccines aims to tamp down SARS-CoV-2, its closest relatives, and whatever may come into tamer respiratory viruses like the common cold. Whatever the eventual components of this new generation of vaccines, experts agree on the goal: preventing severe disease and death. And a broader approach is critical.

“All the vaccines have been amazing. But we’re playing a whack-a-mole game with the variants. We need to take a step back and ask if a pan-variant vaccine is possible. That’s important because Omicron isn’t the last variant,” said Jacob Lemieux, MD, PhD, instructor in medicine and infectious disease specialist at Massachusetts General Hospital, Boston.
 

A broad spectrum vaccine

The drive to create a vaccine that would deter multiple coronaviruses arose early, among many researchers. An article published in Nature in May 2020 by National Institute of Allergy and Infectious Diseases researcher Luca T. Giurgea, MD, and colleagues said it all in the title: “Universal coronavirus vaccines: the time to start is now.”

Their concerns? The diversity of bat coronaviruses poised to jump into humans; the high mutability of the spike gene that the immune response recognizes; and the persistence of mutations in an RNA virus, which can’t repair errors. 

Work on broader vaccines began in several labs as SARS-CoV-2 spawned variant after variant.

On Sept. 28, NIAID announced funding for developing ‘pan-coronavirus’ vaccines – the quotation marks theirs to indicate that a magic bullet against any new coronavirus is unrealistic. “These new awards are designed to look ahead and prepare for the next generation of coronaviruses with pandemic potential,” said NIAID director Anthony S. Fauci, MD. An initial three awards went to groups at the University of Wisconsin, Brigham and Women’s Hospital, and Duke University.

President Biden mentioned the NIAID funding in his State of the Union Address. He also talked about how the Biomedical Advanced Research and Development Authority, founded in 2006 to prepare for public health emergencies, is spearheading development of new vaccine platforms and vaccines that target a broader swath of pathogen parts.

Meanwhile, individual researchers from eclectic fields are finding new ways to prevent future pandemics.

Artem Babaian, PhD, a computational biologist at the University of Cambridge (England), had the idea to probe National Institutes of Health genome databases, going back more than a decade, for overlooked novel coronaviruses. He started the project while he was between jobs as the pandemic was unfurling, using a telltale enzyme unique to the RNA viruses to fish out COVID cousins. The work is published in Nature and the data freely available at serratus.io.

Among the nearly 132,000 novel RNA viruses Dr. Babaian’s team found, 9 were from previously unrecognized coronaviruses. The novel nine came from “ecologically diverse sources”: a seahorse, an axolotl, an eel, and several fishes. Deciphering the topographies of these coronaviruses may provide clues to developing vaccines that stay ahead of future pandemics.

But optics are important in keeping expectations reasonable. “‘Universal vaccine’ is a misnomer. I think about it as ‘broad spectrum vaccines.’ It’s critical to be up front that these vaccines can never guarantee immunity against all coronaviruses. There are no absolutes in biology, but they hopefully will work against the dangers that we do know exist. A vaccine that mimics exposure to many coronaviruses could protect against a currently unknown coronavirus, especially if slower-evolving antigens are included,” Dr. Babaian said in an interview.

Nikolai Petrovsky, MD, PhD, of Flinders University, Adelaide, and the biotechnology company Vaccine Pty, agrees, calling a literal pan-coronavirus vaccine a “pipe dream. What I do think is achievable is a broadly protective, pan–CoV-19 vaccine – I can say that because we have already developed and tested it, combining antigens rather than trying just one that can do everything.”
 

Immunity lures

The broader vaccines in development display viral antigens, such as spike proteins, to the immune system on diverse frameworks. Here are a few approaches.

Ferritin nanoparticles: A candidate vaccine from the emerging infectious diseases branch of Water Reed National Military Medical Center began phase 1 human trials in April 2021. Called SpFN, the vaccine consists of arrays of ferritin nanoparticles linked to spike proteins from various variants and species. Ferritin is a protein that binds and stores iron in the body.

“The repetitive and ordered display of the coronavirus spike protein on a multifaced nanoparticle may stimulate immunity in such a way as to translate into significantly broader protection,” said Walter Reed’s branch director and vaccine coinventor Kayvon Modjarrad, MD, PhD.

A second vaccine targets only the “bullseye” part of the spike that the virus uses to attach and gain access to human cells, called the receptor-binding domain (RBD), of SARS-CoV-2 variants and of the virus behind the original SARS. The preclinical data appeared in Science Translational Medicine.

Barton Haynes, MD and colleagues at the Duke Human Vaccine Institute are also using ferritin to design and develop a “pan-betacoronavirus vaccine,” referring to the genus to which SARS-CoV-2 belongs. They say their results in macaques, published in Nature, “demonstrate that current mRNA-based vaccines may provide some protection from future outbreaks of zoonotic betacoronaviruses.”

Mosaic nanoparticles: Graduate student Alexander Cohen is leading an effort at CalTech, in the lab of Pamela Bjorkman, PhD, that uses nanoparticles consisting of proteins from a bacterium (Strep pyogenes) to which RBDs from spike proteins of four or eight different betacoronaviruses are attached. The strategy demonstrates that the whole is greater than the sum of the parts.

“Alex’s results show that it is possible to raise diverse neutralizing antibody responses, even against coronavirus strains that were not represented on the injected nanoparticle. We are hopeful that this technology could be used to protect against future animal coronaviruses that cross into humans,” said Dr. Björkman. The work appeared in Science.

Candidate vaccines from Inovio Pharmaceuticals also use a mosaic spike strategy, but with DNA rings (plasmids) rather than nanoparticles. One version works against pre-Omicron variants and is being tested against Omicron, and another with “pan–COVID-19” coverage has tested well in animal models. Inovio’s vaccines are delivered into the skin using a special device that applies an electric pulse that increases the cells’ permeability.

Chimeric spikes: Yet another approach is to fashion vaccines from various parts of the betacoronaviruses that are most closely related to SARS-CoV-2 – the pathogens behind Middle East respiratory syndrome and severe acute respiratory syndrome as well as several bat viruses and a few pangolin ones. The abundance and ubiquity of these viruses provide a toolbox of sorts, with instructions written in the language of RNA, from which to select, dissect, recombine, and customize vaccines.

“SARS-like viruses can recombine and exhibit great genetic diversity in several parts of the genome. We designed chimeric spikes to improve coverage of a multiplexed vaccine,” said David Martinez, PhD.

His team at the University of North Carolina at Chapel Hill has developed mRNA vaccines that deliver “scrambled coronavirus spikes” representing various parts, not just the RBD, as described in Science.

In mice, the chimeric vaccines elicit robust T- and B-cell immune responses, which stimulate antibody production and control other facets of building immunity.
 

Beyond the spike bullseye

The challenge of developing pan-coronavirus vaccines is dual. “The very best vaccines are highly specific to each strain, and the universal vaccines have to sacrifice effectiveness to get broad coverage. Life is a trade-off.” Dr. Petrovsky told this news organization. 

Efforts to broaden vaccine efficacy venture beyond targeting the RBD bullseyes of the spike triplets that festoon the virus. Some projects are focusing on less changeable spike parts that are more alike among less closely related coronaviruses than is the mutation-prone RBD. For example, the peptides that twist into the “stem-helix” portion of the part of the spike that adheres to host cells are the basis of some candidate vaccines now in preclinical studies.

Still other vaccines aren’t spike based at all. French company Osivax, for example, is working on a vaccine that targets the nucleocapsid protein that shields the viral RNA. The hope is that presenting various faces of the pathogen may spark immunity beyond an initial antibody rush and evoke more diverse and lasting T-cell responses.

With the myriad efforts to back up the first generation of COVID-19 vaccines with new ones offering broader protection, it appears that science may have finally learned from history.

“After the SARS outbreak, we lost interest and failed to complete development of a vaccine for use in case of a recurrent outbreak. We must not make the same mistake again,” Dr. Giurgea and colleagues wrote in their Nature article about universal coronavirus vaccines.

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

Data from the first 6 months after the rollout of mRNA COVID-19 vaccines in the United States released today show that adverse effects from shots are typically mild and short-lived.

Findings of the large study, compiled after nearly 300 million doses were administered, were published online March 7 in The Lancet Infectious Diseases.

Researchers, led by Hannah G. Rosenblum, MD, with the Centers for Disease Control and Prevention COVID Response Team, used passive U.S. surveillance data collected through the Vaccine Adverse Event Reporting System (VAERS), and the active system, v-safe, starting in December 2020 through the first 6 months of the U.S. COVID-19 vaccination program. V-safe is a voluntary, smartphone-based system set up in 2020 specifically for monitoring reactions to COVID-19 and health effects after vaccination. The health effects information from v-safe is presented in this study for the first time.

Of the 298.7 million doses of mRNA vaccines administered in the U.S. during the study period, VAERS processed 340,522 reports. Of those, 313,499 (92.1%) were nonserious; 22,527 (6.6%) were serious (nondeath); and 4,496 (1.3%) were deaths.

From v-safe reporting, researchers learned that about 71% of the 7.9 million participants reported local or systemic reactions, more frequently after dose 2 than after dose 1. Of those reporting reactions after dose 1, about two-thirds (68.6%) reported a local reaction and 52.7% reported a systemic reaction.

Among other findings:

• Injection-site pain occurred after dose 1 in 66.2% of participants and 68.6% after dose 2.
• One-third of participants (33.9%) reported fatigue after dose 1 and 55.7% after dose 2.
• Headache was reported among 27% of participants after dose 1 and 46.2% after dose 2.
• When injection site pain, fatigue, or headaches were reported, the reports were usually in the first week after vaccination.
• Reports of being unable to work or do normal daily activities, or instances of seeking medical care, occurred more commonly after dose 2 (32.1%) than after dose 1 (11.9%). Fewer than 1% of participants reported seeking medical care after dose 1 or 2 of the vaccine.
• Reactions and health effects were reported more often in female than in male recipients, and in people younger than 65 years, compared with older people.
• Serious adverse events, including myocarditis, have been identified following mRNA vaccinations, but the events are rare.

The authors wrote that these results are consistent with preauthorization clinical trials and early postauthorization reports.

“On the basis of our findings, mild to moderate transient reactogenicity should be anticipated,” they said, “particularly among younger and female vaccine recipients.”
 

‘Robust and reassuring data’

“The safety monitoring of the mRNA COVID-19 vaccines stands out as the most comprehensive of any vaccine in U.S. history. The use of these complementary monitoring systems has provided robust and reassuring data,” Matthew S. Krantz, MD, with the division of allergy, pulmonary, and critical care medicine at Vanderbilt University, Nashville, Tenn., and Elizabeth J. Phillips, MD, with the department of pathology, microbiology, and immunology at Vanderbilt, wrote in a related commentary in The Lancet Infectious Diseases.

They point out that the v-safe reports of reactions are consistent with those reported from clinical trials and a large population study in the United Kingdom.

Dr. Phillips said in a press release, “[A]lthough approximately one in 1,000 individuals vaccinated may have an adverse effect, most of these are nonserious. No unusual patterns emerged in the cause of death or serious adverse effects among VAERS reports. For adverse events of special interest, it is reassuring that there were no unexpected signals other than myopericarditis and anaphylaxis, already known to be associated with mRNA vaccines.”

The study authors and editorialists have disclosed no relevant financial relationships.

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

Data from the first 6 months after the rollout of mRNA COVID-19 vaccines in the United States released today show that adverse effects from shots are typically mild and short-lived.

Findings of the large study, compiled after nearly 300 million doses were administered, were published online March 7 in The Lancet Infectious Diseases.

Researchers, led by Hannah G. Rosenblum, MD, with the Centers for Disease Control and Prevention COVID Response Team, used passive U.S. surveillance data collected through the Vaccine Adverse Event Reporting System (VAERS), and the active system, v-safe, starting in December 2020 through the first 6 months of the U.S. COVID-19 vaccination program. V-safe is a voluntary, smartphone-based system set up in 2020 specifically for monitoring reactions to COVID-19 and health effects after vaccination. The health effects information from v-safe is presented in this study for the first time.

Of the 298.7 million doses of mRNA vaccines administered in the U.S. during the study period, VAERS processed 340,522 reports. Of those, 313,499 (92.1%) were nonserious; 22,527 (6.6%) were serious (nondeath); and 4,496 (1.3%) were deaths.

From v-safe reporting, researchers learned that about 71% of the 7.9 million participants reported local or systemic reactions, more frequently after dose 2 than after dose 1. Of those reporting reactions after dose 1, about two-thirds (68.6%) reported a local reaction and 52.7% reported a systemic reaction.

Among other findings:

• Injection-site pain occurred after dose 1 in 66.2% of participants and 68.6% after dose 2.
• One-third of participants (33.9%) reported fatigue after dose 1 and 55.7% after dose 2.
• Headache was reported among 27% of participants after dose 1 and 46.2% after dose 2.
• When injection site pain, fatigue, or headaches were reported, the reports were usually in the first week after vaccination.
• Reports of being unable to work or do normal daily activities, or instances of seeking medical care, occurred more commonly after dose 2 (32.1%) than after dose 1 (11.9%). Fewer than 1% of participants reported seeking medical care after dose 1 or 2 of the vaccine.
• Reactions and health effects were reported more often in female than in male recipients, and in people younger than 65 years, compared with older people.
• Serious adverse events, including myocarditis, have been identified following mRNA vaccinations, but the events are rare.

The authors wrote that these results are consistent with preauthorization clinical trials and early postauthorization reports.

“On the basis of our findings, mild to moderate transient reactogenicity should be anticipated,” they said, “particularly among younger and female vaccine recipients.”
 

‘Robust and reassuring data’

“The safety monitoring of the mRNA COVID-19 vaccines stands out as the most comprehensive of any vaccine in U.S. history. The use of these complementary monitoring systems has provided robust and reassuring data,” Matthew S. Krantz, MD, with the division of allergy, pulmonary, and critical care medicine at Vanderbilt University, Nashville, Tenn., and Elizabeth J. Phillips, MD, with the department of pathology, microbiology, and immunology at Vanderbilt, wrote in a related commentary in The Lancet Infectious Diseases.

They point out that the v-safe reports of reactions are consistent with those reported from clinical trials and a large population study in the United Kingdom.

Dr. Phillips said in a press release, “[A]lthough approximately one in 1,000 individuals vaccinated may have an adverse effect, most of these are nonserious. No unusual patterns emerged in the cause of death or serious adverse effects among VAERS reports. For adverse events of special interest, it is reassuring that there were no unexpected signals other than myopericarditis and anaphylaxis, already known to be associated with mRNA vaccines.”

The study authors and editorialists have disclosed no relevant financial relationships.

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

Data from the first 6 months after the rollout of mRNA COVID-19 vaccines in the United States released today show that adverse effects from shots are typically mild and short-lived.

Findings of the large study, compiled after nearly 300 million doses were administered, were published online March 7 in The Lancet Infectious Diseases.

Researchers, led by Hannah G. Rosenblum, MD, with the Centers for Disease Control and Prevention COVID Response Team, used passive U.S. surveillance data collected through the Vaccine Adverse Event Reporting System (VAERS), and the active system, v-safe, starting in December 2020 through the first 6 months of the U.S. COVID-19 vaccination program. V-safe is a voluntary, smartphone-based system set up in 2020 specifically for monitoring reactions to COVID-19 and health effects after vaccination. The health effects information from v-safe is presented in this study for the first time.

Of the 298.7 million doses of mRNA vaccines administered in the U.S. during the study period, VAERS processed 340,522 reports. Of those, 313,499 (92.1%) were nonserious; 22,527 (6.6%) were serious (nondeath); and 4,496 (1.3%) were deaths.

From v-safe reporting, researchers learned that about 71% of the 7.9 million participants reported local or systemic reactions, more frequently after dose 2 than after dose 1. Of those reporting reactions after dose 1, about two-thirds (68.6%) reported a local reaction and 52.7% reported a systemic reaction.

Among other findings:

• Injection-site pain occurred after dose 1 in 66.2% of participants and 68.6% after dose 2.
• One-third of participants (33.9%) reported fatigue after dose 1 and 55.7% after dose 2.
• Headache was reported among 27% of participants after dose 1 and 46.2% after dose 2.
• When injection site pain, fatigue, or headaches were reported, the reports were usually in the first week after vaccination.
• Reports of being unable to work or do normal daily activities, or instances of seeking medical care, occurred more commonly after dose 2 (32.1%) than after dose 1 (11.9%). Fewer than 1% of participants reported seeking medical care after dose 1 or 2 of the vaccine.
• Reactions and health effects were reported more often in female than in male recipients, and in people younger than 65 years, compared with older people.
• Serious adverse events, including myocarditis, have been identified following mRNA vaccinations, but the events are rare.

The authors wrote that these results are consistent with preauthorization clinical trials and early postauthorization reports.

“On the basis of our findings, mild to moderate transient reactogenicity should be anticipated,” they said, “particularly among younger and female vaccine recipients.”
 

‘Robust and reassuring data’

“The safety monitoring of the mRNA COVID-19 vaccines stands out as the most comprehensive of any vaccine in U.S. history. The use of these complementary monitoring systems has provided robust and reassuring data,” Matthew S. Krantz, MD, with the division of allergy, pulmonary, and critical care medicine at Vanderbilt University, Nashville, Tenn., and Elizabeth J. Phillips, MD, with the department of pathology, microbiology, and immunology at Vanderbilt, wrote in a related commentary in The Lancet Infectious Diseases.

They point out that the v-safe reports of reactions are consistent with those reported from clinical trials and a large population study in the United Kingdom.

Dr. Phillips said in a press release, “[A]lthough approximately one in 1,000 individuals vaccinated may have an adverse effect, most of these are nonserious. No unusual patterns emerged in the cause of death or serious adverse effects among VAERS reports. For adverse events of special interest, it is reassuring that there were no unexpected signals other than myopericarditis and anaphylaxis, already known to be associated with mRNA vaccines.”

The study authors and editorialists have disclosed no relevant financial relationships.

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

The COVID-19 pandemic has resulted in notable morbidity and mortality worldwide. In December 2020, the US Food and Drug Administration issued an Emergency Use Authorization for 2 messenger RNA (mRNA) vaccines—produced by Pfizer-BioNTech and Moderna—for the prevention of COVID-19. Phase 3 trials of the vaccine developed by Moderna showed 94.1% efficacy at preventing COVID-19 after 2 doses.¹

Common cutaneous adverse effects of the Moderna COVID-19 Vaccine include injection-site reactions, such as pain, induration, and erythema. Less frequently reported dermatologic adverse effects include diffuse bullous rash and hypersensitivity reactions.¹ We report a case of reactivation of a BCG vaccination scar after the first dose of the Moderna COVID-19 Vaccine.

Case Report

A 48-year-old Asian man who was otherwise healthy presented with erythema, induration, and mild pruritus on the deltoid muscle of the left arm, near the scar from an earlier BCG vaccine, which he received at approximately 5 years of age when living in Taiwan. The patient received the first dose of the Moderna COVID-19 Vaccine approximately 5 to 7 cm distant from the BCG vaccination scar. One to 2 days after inoculation, the patient endorsed tenderness at the site of COVID-19 vaccination but denied systemic symptoms. He had never been given a diagnosis of COVID-19. His SARS-CoV-2 antibody status was unknown.

Eight days later, the patient noticed a well-defined, erythematous, indurated plaque with mild itchiness overlying and around the BCG vaccination scar that did not involve the COVID-19 vaccination site. The following day, the redness and induration became worse (Figure).

The patient was otherwise well. Vital signs were normal; there was no lymphadenopathy. The rash resolved without treatment over the next 4 days.

Comment

The BCG vaccine is an intradermal live attenuated virus vaccine used to prevent certain forms of tuberculosis and potentially other Mycobacterium infections. Although the vaccine is not routinely administered in the United States, it is part of the vaccination schedule in most countries, administered most often to newborns and infants. Administration of the BCG vaccine commonly results in mild localized erythema, swelling, and pain at the injection site. Most inoculated patients also develop an ulcer that heals with the characteristic BCG vaccination scar.^2,3

There is evidence that the BCG vaccine can enhance the innate immune system response and might decrease the rate of infection by unrelated pathogens, including viruses.⁴ Several epidemiologic studies have suggested that the BCG vaccine might offer some protection against COVID-19, possibly due to a resemblance of the amino acid sequences of BCG and SARS-CoV-2, which might provoke cross-reactive T cells.^5,6 Further studies are underway to determine whether the BCG vaccine is truly protective against COVID-19.

BCG vaccination scar reactivation presents as redness, swelling, or ulceration at the BCG injection site months to years after inoculation. Although erythema and induration of the BCG scar are not included in the diagnostic criteria of Kawasaki disease, likely due to variable vaccine requirements in different countries, these findings are largely recognized as specific for Kawasaki disease and present in approximately half of affected patients who received the BCG vaccine.²

Heat Shock Proteins—Heat shock proteins (HSPs) are produced by cells in response to stressors. The proposed mechanism of BCG vaccination scar reactivation is a cross-reaction between human homologue HSP 63 and Mycobacterium HSP 65, leading to hyperactivity of the immune system against BCG.⁷ There also are reports of reactivation of a BCG vaccination scar from measles infection and influenza vaccination.^2,8,9 Most prior reports of BCG vaccination scar reactivation have been in pediatric patients; our patient is an adult who received the BCG vaccine more than 40 years ago.

Mechanism of Reactivation—The mechanism of BCG vaccination scar reactivation in our patient, who received the Moderna COVID-19 Vaccine, is unclear. Possible mechanisms include (1) release of HSP mediated by the COVID-19 vaccine, leading to an immune response at the BCG vaccine scar, or (2) another immune-mediated cross-reaction between BCG and the Moderna COVID-19 Vaccine mRNA nanoparticle or encoded spike protein antigen. It has been hypothesized that the BCG vaccine might offer some protection against COVID-19; this remains uncertain and is under further investigation.¹⁰ A recent retrospective cohort study showed that a BCG vaccination booster may decrease COVID-19 infection rates in higher-risk populations.¹¹

Conclusion

We present a case of BCG vaccine scar reactivation occurring after a dose of the Moderna COVID-19 Vaccine, a likely underreported, self-limiting, cutaneous adverse effect of this mRNA vaccine.

The COVID-19 pandemic has resulted in notable morbidity and mortality worldwide. In December 2020, the US Food and Drug Administration issued an Emergency Use Authorization for 2 messenger RNA (mRNA) vaccines—produced by Pfizer-BioNTech and Moderna—for the prevention of COVID-19. Phase 3 trials of the vaccine developed by Moderna showed 94.1% efficacy at preventing COVID-19 after 2 doses.¹

Common cutaneous adverse effects of the Moderna COVID-19 Vaccine include injection-site reactions, such as pain, induration, and erythema. Less frequently reported dermatologic adverse effects include diffuse bullous rash and hypersensitivity reactions.¹ We report a case of reactivation of a BCG vaccination scar after the first dose of the Moderna COVID-19 Vaccine.

Case Report

A 48-year-old Asian man who was otherwise healthy presented with erythema, induration, and mild pruritus on the deltoid muscle of the left arm, near the scar from an earlier BCG vaccine, which he received at approximately 5 years of age when living in Taiwan. The patient received the first dose of the Moderna COVID-19 Vaccine approximately 5 to 7 cm distant from the BCG vaccination scar. One to 2 days after inoculation, the patient endorsed tenderness at the site of COVID-19 vaccination but denied systemic symptoms. He had never been given a diagnosis of COVID-19. His SARS-CoV-2 antibody status was unknown.

Eight days later, the patient noticed a well-defined, erythematous, indurated plaque with mild itchiness overlying and around the BCG vaccination scar that did not involve the COVID-19 vaccination site. The following day, the redness and induration became worse (Figure).

The patient was otherwise well. Vital signs were normal; there was no lymphadenopathy. The rash resolved without treatment over the next 4 days.

Comment

The BCG vaccine is an intradermal live attenuated virus vaccine used to prevent certain forms of tuberculosis and potentially other Mycobacterium infections. Although the vaccine is not routinely administered in the United States, it is part of the vaccination schedule in most countries, administered most often to newborns and infants. Administration of the BCG vaccine commonly results in mild localized erythema, swelling, and pain at the injection site. Most inoculated patients also develop an ulcer that heals with the characteristic BCG vaccination scar.^2,3

There is evidence that the BCG vaccine can enhance the innate immune system response and might decrease the rate of infection by unrelated pathogens, including viruses.⁴ Several epidemiologic studies have suggested that the BCG vaccine might offer some protection against COVID-19, possibly due to a resemblance of the amino acid sequences of BCG and SARS-CoV-2, which might provoke cross-reactive T cells.^5,6 Further studies are underway to determine whether the BCG vaccine is truly protective against COVID-19.

BCG vaccination scar reactivation presents as redness, swelling, or ulceration at the BCG injection site months to years after inoculation. Although erythema and induration of the BCG scar are not included in the diagnostic criteria of Kawasaki disease, likely due to variable vaccine requirements in different countries, these findings are largely recognized as specific for Kawasaki disease and present in approximately half of affected patients who received the BCG vaccine.²

Heat Shock Proteins—Heat shock proteins (HSPs) are produced by cells in response to stressors. The proposed mechanism of BCG vaccination scar reactivation is a cross-reaction between human homologue HSP 63 and Mycobacterium HSP 65, leading to hyperactivity of the immune system against BCG.⁷ There also are reports of reactivation of a BCG vaccination scar from measles infection and influenza vaccination.^2,8,9 Most prior reports of BCG vaccination scar reactivation have been in pediatric patients; our patient is an adult who received the BCG vaccine more than 40 years ago.

Mechanism of Reactivation—The mechanism of BCG vaccination scar reactivation in our patient, who received the Moderna COVID-19 Vaccine, is unclear. Possible mechanisms include (1) release of HSP mediated by the COVID-19 vaccine, leading to an immune response at the BCG vaccine scar, or (2) another immune-mediated cross-reaction between BCG and the Moderna COVID-19 Vaccine mRNA nanoparticle or encoded spike protein antigen. It has been hypothesized that the BCG vaccine might offer some protection against COVID-19; this remains uncertain and is under further investigation.¹⁰ A recent retrospective cohort study showed that a BCG vaccination booster may decrease COVID-19 infection rates in higher-risk populations.¹¹

Conclusion

We present a case of BCG vaccine scar reactivation occurring after a dose of the Moderna COVID-19 Vaccine, a likely underreported, self-limiting, cutaneous adverse effect of this mRNA vaccine.

The COVID-19 pandemic has resulted in notable morbidity and mortality worldwide. In December 2020, the US Food and Drug Administration issued an Emergency Use Authorization for 2 messenger RNA (mRNA) vaccines—produced by Pfizer-BioNTech and Moderna—for the prevention of COVID-19. Phase 3 trials of the vaccine developed by Moderna showed 94.1% efficacy at preventing COVID-19 after 2 doses.¹

Common cutaneous adverse effects of the Moderna COVID-19 Vaccine include injection-site reactions, such as pain, induration, and erythema. Less frequently reported dermatologic adverse effects include diffuse bullous rash and hypersensitivity reactions.¹ We report a case of reactivation of a BCG vaccination scar after the first dose of the Moderna COVID-19 Vaccine.

Case Report

A 48-year-old Asian man who was otherwise healthy presented with erythema, induration, and mild pruritus on the deltoid muscle of the left arm, near the scar from an earlier BCG vaccine, which he received at approximately 5 years of age when living in Taiwan. The patient received the first dose of the Moderna COVID-19 Vaccine approximately 5 to 7 cm distant from the BCG vaccination scar. One to 2 days after inoculation, the patient endorsed tenderness at the site of COVID-19 vaccination but denied systemic symptoms. He had never been given a diagnosis of COVID-19. His SARS-CoV-2 antibody status was unknown.

Eight days later, the patient noticed a well-defined, erythematous, indurated plaque with mild itchiness overlying and around the BCG vaccination scar that did not involve the COVID-19 vaccination site. The following day, the redness and induration became worse (Figure).

The patient was otherwise well. Vital signs were normal; there was no lymphadenopathy. The rash resolved without treatment over the next 4 days.

Comment

The BCG vaccine is an intradermal live attenuated virus vaccine used to prevent certain forms of tuberculosis and potentially other Mycobacterium infections. Although the vaccine is not routinely administered in the United States, it is part of the vaccination schedule in most countries, administered most often to newborns and infants. Administration of the BCG vaccine commonly results in mild localized erythema, swelling, and pain at the injection site. Most inoculated patients also develop an ulcer that heals with the characteristic BCG vaccination scar.^2,3

There is evidence that the BCG vaccine can enhance the innate immune system response and might decrease the rate of infection by unrelated pathogens, including viruses.⁴ Several epidemiologic studies have suggested that the BCG vaccine might offer some protection against COVID-19, possibly due to a resemblance of the amino acid sequences of BCG and SARS-CoV-2, which might provoke cross-reactive T cells.^5,6 Further studies are underway to determine whether the BCG vaccine is truly protective against COVID-19.

BCG vaccination scar reactivation presents as redness, swelling, or ulceration at the BCG injection site months to years after inoculation. Although erythema and induration of the BCG scar are not included in the diagnostic criteria of Kawasaki disease, likely due to variable vaccine requirements in different countries, these findings are largely recognized as specific for Kawasaki disease and present in approximately half of affected patients who received the BCG vaccine.²

Heat Shock Proteins—Heat shock proteins (HSPs) are produced by cells in response to stressors. The proposed mechanism of BCG vaccination scar reactivation is a cross-reaction between human homologue HSP 63 and Mycobacterium HSP 65, leading to hyperactivity of the immune system against BCG.⁷ There also are reports of reactivation of a BCG vaccination scar from measles infection and influenza vaccination.^2,8,9 Most prior reports of BCG vaccination scar reactivation have been in pediatric patients; our patient is an adult who received the BCG vaccine more than 40 years ago.

Mechanism of Reactivation—The mechanism of BCG vaccination scar reactivation in our patient, who received the Moderna COVID-19 Vaccine, is unclear. Possible mechanisms include (1) release of HSP mediated by the COVID-19 vaccine, leading to an immune response at the BCG vaccine scar, or (2) another immune-mediated cross-reaction between BCG and the Moderna COVID-19 Vaccine mRNA nanoparticle or encoded spike protein antigen. It has been hypothesized that the BCG vaccine might offer some protection against COVID-19; this remains uncertain and is under further investigation.¹⁰ A recent retrospective cohort study showed that a BCG vaccination booster may decrease COVID-19 infection rates in higher-risk populations.¹¹

Conclusion

We present a case of BCG vaccine scar reactivation occurring after a dose of the Moderna COVID-19 Vaccine, a likely underreported, self-limiting, cutaneous adverse effect of this mRNA vaccine.

California-based emergency physician Simone Melissa Gold, MD, JD, founder of the antivaccine group America’s Frontline Doctors (AFD) and leading voice in the antivaccine movement, has pleaded guilty to one of five charges related to the Jan. 6 Capitol riot.

According to the plea deal, Dr. Gold pleaded guilty to charges that she “did unlawfully and knowingly enter and remain in a restricted building and grounds, that is, any posted, cordoned-off, or otherwise restricted area within the United States Capitol and its grounds, during a time when the vice president was in the building without lawful authority to do so.” As part of the agreement, additional charges against her – obstructing an official proceeding and intent to disrupt the orderly conduct of government business – will be dismissed. She also agreed to cooperate with investigators, including allowing them to review social media postings made during the time surrounding the event.

Shortly after she was indicted, Dr. Gold told The Washington Post that she did not see any violence and that the event was “peaceful.” However, according to news reports, Dr. Gold acknowledged in her plea deal that she and her codefendant, John Herbert Strand, witnessed the assault of a police officer while they were outside the building.

Dr. Gold, 56, based in Beverly Hills, Calif., founded AFD in 2019. The group notes its goal is to “amplify the voices of concerned physicians and patients nationwide to combat those who push political and economic agendas at the expense of science and quality health care solutions.” Mr. Strand is the organization’s communication’s director.

The group has been a leading proponent of the use of ivermectin as a “safe and effective treatment” for COVID-19, according to its website.

In 2021, Dr. Gold spoke at an event called The Stand, representing AFD, where she promised to tell “the truth” about COVID vaccines, including that it was actually giving people the virus, that COVID was renamed from the “Wuhan Virus” as part of a cover-up, and touted treatments, including hydroxycholoroquine and ivermectin.

Dr. Gold has been one of the leading voices in the anti-vaccine movement. She has more than 400,000 Twitter followers; her Twitter profile includes a pinned tweet saying: “We are living in Orwellian times.” In addition to spreading vaccine misinformation, Dr. Gold has promoted the use of unproven treatments such as hydroxychloroquine and ivermectin.

Calls and emails to AFD regarding a statement on Gold’s plea made by this news organization were not returned by press time.

In October, Representative James E. Clyburn (D-S.C.), chairman of the Select Subcommittee on the Coronavirus Crisis, launched an investigation into organizations, including AFD, that spread misinformation and facilitate access to disproven and potentially hazardous treatments for COVID-19. According to news reports, Rep. Clyburn called the AFD and other such groups “predatory actors.”

Hospitals where Dr. Gold previously worked, including Providence St. Joseph Medical Center in Santa Monica, Calif., and Cedars-Sinai in Los Angeles, have disassociated themselves from her. On July 29, 2020, Cedars-Sinai Medical Center, where Gold previously worked, issued a statement that said, in part, “Simone Gold, MD, has not worked with Cedars-Sinai Medical Center or any of its offices or affiliates since 2015. For 3 weeks in late 2015, Dr. Gold was employed on a per diem basis by Cedars-Sinai Medical Network, a component of Cedars-Sinai. She worked during this brief time in a network urgent care clinic. Dr. Gold is not authorized to represent or speak about any information on behalf of Cedars-Sinai.”

Dr. Gold’s medical license in the state of California is current and she has no pending hearings before the state medical board, according to its website. On her own website, Dr. Gold says she “voluntarily refused” to renew her board certification last year, “due to the unethical behavior of the medical boards.”

Dr. Gold is also a licensed attorney, having earned her law degree in health policy analysis at Stanford (Calif.) Law School.

Dr. Gold faces 6 months in prison. Sentencing is scheduled for June 16.

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

California-based emergency physician Simone Melissa Gold, MD, JD, founder of the antivaccine group America’s Frontline Doctors (AFD) and leading voice in the antivaccine movement, has pleaded guilty to one of five charges related to the Jan. 6 Capitol riot.

According to the plea deal, Dr. Gold pleaded guilty to charges that she “did unlawfully and knowingly enter and remain in a restricted building and grounds, that is, any posted, cordoned-off, or otherwise restricted area within the United States Capitol and its grounds, during a time when the vice president was in the building without lawful authority to do so.” As part of the agreement, additional charges against her – obstructing an official proceeding and intent to disrupt the orderly conduct of government business – will be dismissed. She also agreed to cooperate with investigators, including allowing them to review social media postings made during the time surrounding the event.

Shortly after she was indicted, Dr. Gold told The Washington Post that she did not see any violence and that the event was “peaceful.” However, according to news reports, Dr. Gold acknowledged in her plea deal that she and her codefendant, John Herbert Strand, witnessed the assault of a police officer while they were outside the building.

Dr. Gold, 56, based in Beverly Hills, Calif., founded AFD in 2019. The group notes its goal is to “amplify the voices of concerned physicians and patients nationwide to combat those who push political and economic agendas at the expense of science and quality health care solutions.” Mr. Strand is the organization’s communication’s director.

The group has been a leading proponent of the use of ivermectin as a “safe and effective treatment” for COVID-19, according to its website.

In 2021, Dr. Gold spoke at an event called The Stand, representing AFD, where she promised to tell “the truth” about COVID vaccines, including that it was actually giving people the virus, that COVID was renamed from the “Wuhan Virus” as part of a cover-up, and touted treatments, including hydroxycholoroquine and ivermectin.

Dr. Gold has been one of the leading voices in the anti-vaccine movement. She has more than 400,000 Twitter followers; her Twitter profile includes a pinned tweet saying: “We are living in Orwellian times.” In addition to spreading vaccine misinformation, Dr. Gold has promoted the use of unproven treatments such as hydroxychloroquine and ivermectin.

Calls and emails to AFD regarding a statement on Gold’s plea made by this news organization were not returned by press time.

In October, Representative James E. Clyburn (D-S.C.), chairman of the Select Subcommittee on the Coronavirus Crisis, launched an investigation into organizations, including AFD, that spread misinformation and facilitate access to disproven and potentially hazardous treatments for COVID-19. According to news reports, Rep. Clyburn called the AFD and other such groups “predatory actors.”

Hospitals where Dr. Gold previously worked, including Providence St. Joseph Medical Center in Santa Monica, Calif., and Cedars-Sinai in Los Angeles, have disassociated themselves from her. On July 29, 2020, Cedars-Sinai Medical Center, where Gold previously worked, issued a statement that said, in part, “Simone Gold, MD, has not worked with Cedars-Sinai Medical Center or any of its offices or affiliates since 2015. For 3 weeks in late 2015, Dr. Gold was employed on a per diem basis by Cedars-Sinai Medical Network, a component of Cedars-Sinai. She worked during this brief time in a network urgent care clinic. Dr. Gold is not authorized to represent or speak about any information on behalf of Cedars-Sinai.”

Dr. Gold’s medical license in the state of California is current and she has no pending hearings before the state medical board, according to its website. On her own website, Dr. Gold says she “voluntarily refused” to renew her board certification last year, “due to the unethical behavior of the medical boards.”

Dr. Gold is also a licensed attorney, having earned her law degree in health policy analysis at Stanford (Calif.) Law School.

Dr. Gold faces 6 months in prison. Sentencing is scheduled for June 16.

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

California-based emergency physician Simone Melissa Gold, MD, JD, founder of the antivaccine group America’s Frontline Doctors (AFD) and leading voice in the antivaccine movement, has pleaded guilty to one of five charges related to the Jan. 6 Capitol riot.

According to the plea deal, Dr. Gold pleaded guilty to charges that she “did unlawfully and knowingly enter and remain in a restricted building and grounds, that is, any posted, cordoned-off, or otherwise restricted area within the United States Capitol and its grounds, during a time when the vice president was in the building without lawful authority to do so.” As part of the agreement, additional charges against her – obstructing an official proceeding and intent to disrupt the orderly conduct of government business – will be dismissed. She also agreed to cooperate with investigators, including allowing them to review social media postings made during the time surrounding the event.

Shortly after she was indicted, Dr. Gold told The Washington Post that she did not see any violence and that the event was “peaceful.” However, according to news reports, Dr. Gold acknowledged in her plea deal that she and her codefendant, John Herbert Strand, witnessed the assault of a police officer while they were outside the building.

Dr. Gold, 56, based in Beverly Hills, Calif., founded AFD in 2019. The group notes its goal is to “amplify the voices of concerned physicians and patients nationwide to combat those who push political and economic agendas at the expense of science and quality health care solutions.” Mr. Strand is the organization’s communication’s director.

The group has been a leading proponent of the use of ivermectin as a “safe and effective treatment” for COVID-19, according to its website.

In 2021, Dr. Gold spoke at an event called The Stand, representing AFD, where she promised to tell “the truth” about COVID vaccines, including that it was actually giving people the virus, that COVID was renamed from the “Wuhan Virus” as part of a cover-up, and touted treatments, including hydroxycholoroquine and ivermectin.

Dr. Gold has been one of the leading voices in the anti-vaccine movement. She has more than 400,000 Twitter followers; her Twitter profile includes a pinned tweet saying: “We are living in Orwellian times.” In addition to spreading vaccine misinformation, Dr. Gold has promoted the use of unproven treatments such as hydroxychloroquine and ivermectin.

Calls and emails to AFD regarding a statement on Gold’s plea made by this news organization were not returned by press time.

In October, Representative James E. Clyburn (D-S.C.), chairman of the Select Subcommittee on the Coronavirus Crisis, launched an investigation into organizations, including AFD, that spread misinformation and facilitate access to disproven and potentially hazardous treatments for COVID-19. According to news reports, Rep. Clyburn called the AFD and other such groups “predatory actors.”

Hospitals where Dr. Gold previously worked, including Providence St. Joseph Medical Center in Santa Monica, Calif., and Cedars-Sinai in Los Angeles, have disassociated themselves from her. On July 29, 2020, Cedars-Sinai Medical Center, where Gold previously worked, issued a statement that said, in part, “Simone Gold, MD, has not worked with Cedars-Sinai Medical Center or any of its offices or affiliates since 2015. For 3 weeks in late 2015, Dr. Gold was employed on a per diem basis by Cedars-Sinai Medical Network, a component of Cedars-Sinai. She worked during this brief time in a network urgent care clinic. Dr. Gold is not authorized to represent or speak about any information on behalf of Cedars-Sinai.”

Dr. Gold’s medical license in the state of California is current and she has no pending hearings before the state medical board, according to its website. On her own website, Dr. Gold says she “voluntarily refused” to renew her board certification last year, “due to the unethical behavior of the medical boards.”

Dr. Gold is also a licensed attorney, having earned her law degree in health policy analysis at Stanford (Calif.) Law School.

Dr. Gold faces 6 months in prison. Sentencing is scheduled for June 16.

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

Getting a COVID-19 mRNA vaccine did not affect pregnancy rates for women trying to conceive with in vitro fertilization or ovarian response to treatment, findings of a new study indicate.

The study was led by Sarit Avraham, MD, with the IVF unit, department of obstetrics and gynecology, Shamir Medical Center in Tzrifi, Israel. The findings were published online in Fertility and Sterility in a preproof version.

“Women should be vaccinated for COVID-19 prior to attempting to conceive via IVF treatments, given the higher risk of severe illness in pregnant women,” the authors wrote.

Doubts arose from “the theoretical concept of the supposed similarity between the SARS-CoV-2 spike protein and the syncytin protein that is speculated to take part in the fertilization process and the formation of the placenta,” the authors wrote.

Some then assumed that the COVID vaccine might kick off an immune response that could affect implantation and pregnancy. But this study and others before it found otherwise.

Researchers included 200 vaccinated women trying to conceive with IVF treatments in the retrospective study, and compared them with 200 unvaccinated patients of similar age (average age in both groups, 36 years) who were not previously infected with COVID-19. All the women were undergoing IVF from January to April 2021 and all the vaccinated women completed two doses of the BNT162b2 (Pfizer/BioNTech) vaccine at least 2 weeks before ovarian stimulation.

Researchers compared the average number of oocytes retrieved and clinical pregnancy rates between the two groups.
 

No difference between groups

Two hundred patients underwent oocyte retrieval 14-68 days after receiving a COVID shot; there was no significant difference by vaccination status in the number retrieved per cycle (10.63 in the vaccinated group vs. 10.72 in the unvaccinated group; P = .93).

There was also no difference in the clinical pregnancy rates after fresh embryo transfers. The rate among 128 vaccinated patients was 32.8% versus 33.1% in the 133 unvaccinated patients (P = .96), with 42 and 44 clinical pregnancies, respectively.

A total of 113 patients (66 in the study group and 47 in the controls) underwent freeze-all cycles to preserve fertility and fertilization rates were similar between vaccinated and unvaccinated (55.43% vaccinated vs. 54.29% unvaccinated; P = .73). The average number of cryopreserved embryos was 3.59 (vaccinated) versus 3.28 (unvaccinated) (P = .80).

In a subanalysis of outcomes by age, researchers found vaccination status had no effect on number of oocytes or pregnancy rates in the 39-and-older group. That’s important because it shows the vaccine did not affect outcomes even in a population with reduced ovarian reserves, the authors wrote.

The authors noted one of the study’s limitations is that it didn’t include information about vaccination or past infection status of the male partners.
 

Question should be put to rest

Sarah Cross, MD, a maternal-fetal medicine specialist at the University of Minnesota, Minneapolis, said the study is the biggest she’s seen that concludes COVID vaccinations are safe and highly encouraged for women before trying to conceive, but other smaller studies have come to the same conclusion.

She pointed to research including a study from 2021 with similar findings that concluded: “Physicians and public health personnel can counsel women of reproductive age that neither previous illness with COVID-19 nor antibodies produced from vaccination to COVID-19 will cause sterility.”

She said she thinks the question of whether COVID shots are safe with IVF has been answered and the results of the latest study add proof to counter misinformation around the issue.

“The COVID-19 vaccine does not affect fertility,” she said. “I don’t know how many more [studies] we need.”

The harm is in not getting vaccinated, she said. Pregnancy significantly increases a woman’s chance of getting severe COVID, the need for hospitalization, mechanical ventilation, and risk of death.

“I personally have never had a hospitalized patient who’s been vaccinated,” Dr. Cross said. “The worst thing for the fetus is to have a critically ill mother.”

Dr. Cross, whose high-risk patients include those seeking counseling before IVF, added: “I would counsel all of them that they should absolutely get vaccinated prior to pregnancy, when they’re pregnant, whenever it is, as soon as they possibly can.”

The study authors and Dr. Cross report no relevant financial relationships.

Getting a COVID-19 mRNA vaccine did not affect pregnancy rates for women trying to conceive with in vitro fertilization or ovarian response to treatment, findings of a new study indicate.

The study was led by Sarit Avraham, MD, with the IVF unit, department of obstetrics and gynecology, Shamir Medical Center in Tzrifi, Israel. The findings were published online in Fertility and Sterility in a preproof version.

“Women should be vaccinated for COVID-19 prior to attempting to conceive via IVF treatments, given the higher risk of severe illness in pregnant women,” the authors wrote.

Doubts arose from “the theoretical concept of the supposed similarity between the SARS-CoV-2 spike protein and the syncytin protein that is speculated to take part in the fertilization process and the formation of the placenta,” the authors wrote.

Some then assumed that the COVID vaccine might kick off an immune response that could affect implantation and pregnancy. But this study and others before it found otherwise.

Researchers included 200 vaccinated women trying to conceive with IVF treatments in the retrospective study, and compared them with 200 unvaccinated patients of similar age (average age in both groups, 36 years) who were not previously infected with COVID-19. All the women were undergoing IVF from January to April 2021 and all the vaccinated women completed two doses of the BNT162b2 (Pfizer/BioNTech) vaccine at least 2 weeks before ovarian stimulation.

Researchers compared the average number of oocytes retrieved and clinical pregnancy rates between the two groups.
 

No difference between groups

Two hundred patients underwent oocyte retrieval 14-68 days after receiving a COVID shot; there was no significant difference by vaccination status in the number retrieved per cycle (10.63 in the vaccinated group vs. 10.72 in the unvaccinated group; P = .93).

There was also no difference in the clinical pregnancy rates after fresh embryo transfers. The rate among 128 vaccinated patients was 32.8% versus 33.1% in the 133 unvaccinated patients (P = .96), with 42 and 44 clinical pregnancies, respectively.

A total of 113 patients (66 in the study group and 47 in the controls) underwent freeze-all cycles to preserve fertility and fertilization rates were similar between vaccinated and unvaccinated (55.43% vaccinated vs. 54.29% unvaccinated; P = .73). The average number of cryopreserved embryos was 3.59 (vaccinated) versus 3.28 (unvaccinated) (P = .80).

In a subanalysis of outcomes by age, researchers found vaccination status had no effect on number of oocytes or pregnancy rates in the 39-and-older group. That’s important because it shows the vaccine did not affect outcomes even in a population with reduced ovarian reserves, the authors wrote.

The authors noted one of the study’s limitations is that it didn’t include information about vaccination or past infection status of the male partners.
 

Question should be put to rest

Sarah Cross, MD, a maternal-fetal medicine specialist at the University of Minnesota, Minneapolis, said the study is the biggest she’s seen that concludes COVID vaccinations are safe and highly encouraged for women before trying to conceive, but other smaller studies have come to the same conclusion.

She pointed to research including a study from 2021 with similar findings that concluded: “Physicians and public health personnel can counsel women of reproductive age that neither previous illness with COVID-19 nor antibodies produced from vaccination to COVID-19 will cause sterility.”

She said she thinks the question of whether COVID shots are safe with IVF has been answered and the results of the latest study add proof to counter misinformation around the issue.

“The COVID-19 vaccine does not affect fertility,” she said. “I don’t know how many more [studies] we need.”

The harm is in not getting vaccinated, she said. Pregnancy significantly increases a woman’s chance of getting severe COVID, the need for hospitalization, mechanical ventilation, and risk of death.

“I personally have never had a hospitalized patient who’s been vaccinated,” Dr. Cross said. “The worst thing for the fetus is to have a critically ill mother.”

Dr. Cross, whose high-risk patients include those seeking counseling before IVF, added: “I would counsel all of them that they should absolutely get vaccinated prior to pregnancy, when they’re pregnant, whenever it is, as soon as they possibly can.”

The study authors and Dr. Cross report no relevant financial relationships.

Getting a COVID-19 mRNA vaccine did not affect pregnancy rates for women trying to conceive with in vitro fertilization or ovarian response to treatment, findings of a new study indicate.

The study was led by Sarit Avraham, MD, with the IVF unit, department of obstetrics and gynecology, Shamir Medical Center in Tzrifi, Israel. The findings were published online in Fertility and Sterility in a preproof version.

“Women should be vaccinated for COVID-19 prior to attempting to conceive via IVF treatments, given the higher risk of severe illness in pregnant women,” the authors wrote.

Doubts arose from “the theoretical concept of the supposed similarity between the SARS-CoV-2 spike protein and the syncytin protein that is speculated to take part in the fertilization process and the formation of the placenta,” the authors wrote.

Some then assumed that the COVID vaccine might kick off an immune response that could affect implantation and pregnancy. But this study and others before it found otherwise.

Researchers included 200 vaccinated women trying to conceive with IVF treatments in the retrospective study, and compared them with 200 unvaccinated patients of similar age (average age in both groups, 36 years) who were not previously infected with COVID-19. All the women were undergoing IVF from January to April 2021 and all the vaccinated women completed two doses of the BNT162b2 (Pfizer/BioNTech) vaccine at least 2 weeks before ovarian stimulation.

Researchers compared the average number of oocytes retrieved and clinical pregnancy rates between the two groups.
 

No difference between groups

Two hundred patients underwent oocyte retrieval 14-68 days after receiving a COVID shot; there was no significant difference by vaccination status in the number retrieved per cycle (10.63 in the vaccinated group vs. 10.72 in the unvaccinated group; P = .93).

There was also no difference in the clinical pregnancy rates after fresh embryo transfers. The rate among 128 vaccinated patients was 32.8% versus 33.1% in the 133 unvaccinated patients (P = .96), with 42 and 44 clinical pregnancies, respectively.

A total of 113 patients (66 in the study group and 47 in the controls) underwent freeze-all cycles to preserve fertility and fertilization rates were similar between vaccinated and unvaccinated (55.43% vaccinated vs. 54.29% unvaccinated; P = .73). The average number of cryopreserved embryos was 3.59 (vaccinated) versus 3.28 (unvaccinated) (P = .80).

In a subanalysis of outcomes by age, researchers found vaccination status had no effect on number of oocytes or pregnancy rates in the 39-and-older group. That’s important because it shows the vaccine did not affect outcomes even in a population with reduced ovarian reserves, the authors wrote.

The authors noted one of the study’s limitations is that it didn’t include information about vaccination or past infection status of the male partners.
 

Question should be put to rest

Sarah Cross, MD, a maternal-fetal medicine specialist at the University of Minnesota, Minneapolis, said the study is the biggest she’s seen that concludes COVID vaccinations are safe and highly encouraged for women before trying to conceive, but other smaller studies have come to the same conclusion.

She pointed to research including a study from 2021 with similar findings that concluded: “Physicians and public health personnel can counsel women of reproductive age that neither previous illness with COVID-19 nor antibodies produced from vaccination to COVID-19 will cause sterility.”

She said she thinks the question of whether COVID shots are safe with IVF has been answered and the results of the latest study add proof to counter misinformation around the issue.

“The COVID-19 vaccine does not affect fertility,” she said. “I don’t know how many more [studies] we need.”

The harm is in not getting vaccinated, she said. Pregnancy significantly increases a woman’s chance of getting severe COVID, the need for hospitalization, mechanical ventilation, and risk of death.

“I personally have never had a hospitalized patient who’s been vaccinated,” Dr. Cross said. “The worst thing for the fetus is to have a critically ill mother.”

Dr. Cross, whose high-risk patients include those seeking counseling before IVF, added: “I would counsel all of them that they should absolutely get vaccinated prior to pregnancy, when they’re pregnant, whenever it is, as soon as they possibly can.”

The study authors and Dr. Cross report no relevant financial relationships.

Some patients with long COVID may have long-lasting nerve damage that could lead to fatigue, sensory changes, and pain in the hands and feet, according to a new study published in the journal Neurology: Neuroimmunology & Neuroinflammation (doi: 10.1212/NXI.0000000000001146).

The nerve damage, which has been seen even among mild coronavirus cases, appears to be caused by immunity problems triggered by infection.

“This is one of the early papers looking into causes of long COVID, which will steadily increase in importance as acute COVID wanes,” Anne Louise Oaklander, MD, the lead study author and a neurologist at Massachusetts General Hospital, Boston, said in a statement.

“Our findings suggest that some long COVID patients had damage to their peripheral nerve fibers and that damage to the small-fiber type of nerve cell may be prominent,” she said.

The research team analyzed data from 17 COVID-19 survivors with lingering symptoms who had no history or risks of neuropathy, or nerve damage or disease. The patients were from 10 states and territories, and all but one had mild infections.

They found that 10 patients – or 59% – had at least one test that confirmed neuropathy. Two patients had rare neuropathies that affected muscle nerves, and 10 were diagnosed with small-fiber neuropathy, which is a cause of chronic pain. Common symptoms included fatigue, weakness, changes in their senses, and pain in their hands and feet.

For treatment, 11 patients were given immunotherapies such as corticosteroids or intravenous immunoglobulins, and the five patients who received repeated IgG treatments appeared to benefit. Over time, 52% of patients improved, though none had all of their symptoms go away.

“Research from our team and others is clarifying what the different types of post-COVID neuropathy are and how best to diagnose and treat them,” she said. “Most long COVID neuropathies described so far appear to reflect immune responses to the virus that went off course.”

Dr. Oaklander noted that researchers haven’t been able to do clinical trials to evaluate specific post-COVID neuropathy treatments. But some existing treatments may help.

“Some patients seem to improve from standard treatments for other immune-related neuropathies,” she said.

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

Some patients with long COVID may have long-lasting nerve damage that could lead to fatigue, sensory changes, and pain in the hands and feet, according to a new study published in the journal Neurology: Neuroimmunology & Neuroinflammation (doi: 10.1212/NXI.0000000000001146).

The nerve damage, which has been seen even among mild coronavirus cases, appears to be caused by immunity problems triggered by infection.

“This is one of the early papers looking into causes of long COVID, which will steadily increase in importance as acute COVID wanes,” Anne Louise Oaklander, MD, the lead study author and a neurologist at Massachusetts General Hospital, Boston, said in a statement.

“Our findings suggest that some long COVID patients had damage to their peripheral nerve fibers and that damage to the small-fiber type of nerve cell may be prominent,” she said.

The research team analyzed data from 17 COVID-19 survivors with lingering symptoms who had no history or risks of neuropathy, or nerve damage or disease. The patients were from 10 states and territories, and all but one had mild infections.

They found that 10 patients – or 59% – had at least one test that confirmed neuropathy. Two patients had rare neuropathies that affected muscle nerves, and 10 were diagnosed with small-fiber neuropathy, which is a cause of chronic pain. Common symptoms included fatigue, weakness, changes in their senses, and pain in their hands and feet.

For treatment, 11 patients were given immunotherapies such as corticosteroids or intravenous immunoglobulins, and the five patients who received repeated IgG treatments appeared to benefit. Over time, 52% of patients improved, though none had all of their symptoms go away.

“Research from our team and others is clarifying what the different types of post-COVID neuropathy are and how best to diagnose and treat them,” she said. “Most long COVID neuropathies described so far appear to reflect immune responses to the virus that went off course.”

Dr. Oaklander noted that researchers haven’t been able to do clinical trials to evaluate specific post-COVID neuropathy treatments. But some existing treatments may help.

“Some patients seem to improve from standard treatments for other immune-related neuropathies,” she said.

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

Some patients with long COVID may have long-lasting nerve damage that could lead to fatigue, sensory changes, and pain in the hands and feet, according to a new study published in the journal Neurology: Neuroimmunology & Neuroinflammation (doi: 10.1212/NXI.0000000000001146).

The nerve damage, which has been seen even among mild coronavirus cases, appears to be caused by immunity problems triggered by infection.

“This is one of the early papers looking into causes of long COVID, which will steadily increase in importance as acute COVID wanes,” Anne Louise Oaklander, MD, the lead study author and a neurologist at Massachusetts General Hospital, Boston, said in a statement.

“Our findings suggest that some long COVID patients had damage to their peripheral nerve fibers and that damage to the small-fiber type of nerve cell may be prominent,” she said.

The research team analyzed data from 17 COVID-19 survivors with lingering symptoms who had no history or risks of neuropathy, or nerve damage or disease. The patients were from 10 states and territories, and all but one had mild infections.

They found that 10 patients – or 59% – had at least one test that confirmed neuropathy. Two patients had rare neuropathies that affected muscle nerves, and 10 were diagnosed with small-fiber neuropathy, which is a cause of chronic pain. Common symptoms included fatigue, weakness, changes in their senses, and pain in their hands and feet.

For treatment, 11 patients were given immunotherapies such as corticosteroids or intravenous immunoglobulins, and the five patients who received repeated IgG treatments appeared to benefit. Over time, 52% of patients improved, though none had all of their symptoms go away.

“Research from our team and others is clarifying what the different types of post-COVID neuropathy are and how best to diagnose and treat them,” she said. “Most long COVID neuropathies described so far appear to reflect immune responses to the virus that went off course.”

Dr. Oaklander noted that researchers haven’t been able to do clinical trials to evaluate specific post-COVID neuropathy treatments. But some existing treatments may help.

“Some patients seem to improve from standard treatments for other immune-related neuropathies,” she said.

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

Survival after in-hospital cardiac arrest was roughly one-third lower in patients with COVID-19 infections compared to uninfected patients, based on data from nearly 25,000 individuals.

Survival rates of less than 3% were reported in the United States and China for patients who suffered in-hospital cardiac arrest (IHCA) while infected with COVID-19 early in the pandemic, but the data came from small, single-center studies in overwhelmed hospitals, wrote Saket Girotra, MD, of the University of Iowa, Iowa City, and fellow American Heart Association Get With the Guidelines–Resuscitation Investigators. Whether these early reports reflect the broader experience of patients with COVID-19 in hospitals in the United States remains unknown.

In a study published as a research letter in JAMA Network Open, the researchers reviewed data from the American Heart Association Get With the Guidelines–Resuscitation registry. The registry collects detailed information on patients aged 18 years and older who experience cardiac arrest at participating hospitals in the United States. The study population included 24,915 patients aged 18 years and older from 286 hospitals who experienced IHCA during March–December 2020. The mean age of the patients was 64.7 years; 61.1% were White, 24.8% were Black, 3.8% were of other race or ethnicity, and 10.3% were of unknown race or ethnicity.

The primary outcomes were survival to discharge and return of spontaneous circulation (ROSC) for at least 20 minutes.

A total of 5,916 patients (23.7%) had suspected or confirmed COVID-19 infections, and infected patients were more likely to be younger, male, and Black. Patients with COVID-19 infections also were significantly more likely than noninfected patients to have nonshockable rhythm, pneumonia, respiratory insufficiency, or sepsis, and to be on mechanical ventilation or vasopressors when the IHCA occurred, the researchers noted.

Survival rates to hospital discharge were 11.9% for COVID-19 patients, compared with 23.5% for noninfected patients (adjusted relative risk, 0.65; P < .001). ROSC was 53.7% and 63.6%, for infected and noninfected patients, respectively (aRR, 0.86; P < .001).

COVID-19 patients also were more likely than noninfected patients to receive delayed defibrillation, the researchers said. “Although delays in resuscitation, especially defibrillation, may have contributed to lower survival, the negative association of COVID-19 with survival in this study was consistent across subgroups, including patients who received timely treatment with defibrillation and epinephrine.”

The extremely low survival rate in early pandemic studies likely reflected the overwhelming burden on health systems at the time, the researchers said in their discussion.

The study findings were limited by several factors, including potential confounding from unmeasured variables, the use of a quality improvement registry that may not reflect nonparticipating hospitals, and potential false-positive COVID-19 cases. However, the result support findings from recent studies of multiple centers and extend clinical knowledge by comparing infected and noninfected patients from a larger group of hospitals than previously studied, the researchers said.

“We believe that these data will be relevant to health care providers and hospital administrators as the COVID-19 pandemic continues,” they concluded.
 

Think beyond COVID-19 for cardiac care

“Early during the pandemic, questions were raised whether COVID-19 patients should be treated with CPR,” Dr. Girotra said in an interview. “This was because initial studies had found a dismal survival of 0%-3% in COVID patients treated with CPR. The potential of transmitting the virus to health care professionals during CPR further heightened these concerns. We wanted to know whether the poor survival reported in these initial studies were broadly representative.”

Dr. Girotra said that some of the study findings were surprising. “We found that of all patients with IHCA in 2020 in our study, one in four were suspected or confirmed to have COVID-19 infection. We were surprised by the magnitude of COVID’s impact on the cardiac arrest incidence.”

The implications for clinical decision-making are to think outside of COVID-19 infection, said Dr. Girotra. In the current study, “Although overall survival of cardiac arrest in COVID-positive patients was 30% lower, compared to non-COVID patients, it was not as poor as previously reported. COVID-19 infection alone should not be considered the sole factor for making decisions regarding CPR.

“Over the past 2 decades, we have experienced large gains in survival for in-hospital cardiac arrest. However, the COVID-19 pandemic has eroded these gains,” said Dr. Girotra. “Future studies are needed to monitor the impact of any new variants on cardiac arrest care,” as well as studies “to see whether we return to the prepandemic levels of IHCA survival once the pandemic recedes.”

Dr. Girotra has no relevant financial disclosures.

Survival after in-hospital cardiac arrest was roughly one-third lower in patients with COVID-19 infections compared to uninfected patients, based on data from nearly 25,000 individuals.

Survival rates of less than 3% were reported in the United States and China for patients who suffered in-hospital cardiac arrest (IHCA) while infected with COVID-19 early in the pandemic, but the data came from small, single-center studies in overwhelmed hospitals, wrote Saket Girotra, MD, of the University of Iowa, Iowa City, and fellow American Heart Association Get With the Guidelines–Resuscitation Investigators. Whether these early reports reflect the broader experience of patients with COVID-19 in hospitals in the United States remains unknown.

In a study published as a research letter in JAMA Network Open, the researchers reviewed data from the American Heart Association Get With the Guidelines–Resuscitation registry. The registry collects detailed information on patients aged 18 years and older who experience cardiac arrest at participating hospitals in the United States. The study population included 24,915 patients aged 18 years and older from 286 hospitals who experienced IHCA during March–December 2020. The mean age of the patients was 64.7 years; 61.1% were White, 24.8% were Black, 3.8% were of other race or ethnicity, and 10.3% were of unknown race or ethnicity.

The primary outcomes were survival to discharge and return of spontaneous circulation (ROSC) for at least 20 minutes.

A total of 5,916 patients (23.7%) had suspected or confirmed COVID-19 infections, and infected patients were more likely to be younger, male, and Black. Patients with COVID-19 infections also were significantly more likely than noninfected patients to have nonshockable rhythm, pneumonia, respiratory insufficiency, or sepsis, and to be on mechanical ventilation or vasopressors when the IHCA occurred, the researchers noted.

Survival rates to hospital discharge were 11.9% for COVID-19 patients, compared with 23.5% for noninfected patients (adjusted relative risk, 0.65; P < .001). ROSC was 53.7% and 63.6%, for infected and noninfected patients, respectively (aRR, 0.86; P < .001).

COVID-19 patients also were more likely than noninfected patients to receive delayed defibrillation, the researchers said. “Although delays in resuscitation, especially defibrillation, may have contributed to lower survival, the negative association of COVID-19 with survival in this study was consistent across subgroups, including patients who received timely treatment with defibrillation and epinephrine.”

The extremely low survival rate in early pandemic studies likely reflected the overwhelming burden on health systems at the time, the researchers said in their discussion.

The study findings were limited by several factors, including potential confounding from unmeasured variables, the use of a quality improvement registry that may not reflect nonparticipating hospitals, and potential false-positive COVID-19 cases. However, the result support findings from recent studies of multiple centers and extend clinical knowledge by comparing infected and noninfected patients from a larger group of hospitals than previously studied, the researchers said.

“We believe that these data will be relevant to health care providers and hospital administrators as the COVID-19 pandemic continues,” they concluded.
 

Think beyond COVID-19 for cardiac care

“Early during the pandemic, questions were raised whether COVID-19 patients should be treated with CPR,” Dr. Girotra said in an interview. “This was because initial studies had found a dismal survival of 0%-3% in COVID patients treated with CPR. The potential of transmitting the virus to health care professionals during CPR further heightened these concerns. We wanted to know whether the poor survival reported in these initial studies were broadly representative.”

Dr. Girotra said that some of the study findings were surprising. “We found that of all patients with IHCA in 2020 in our study, one in four were suspected or confirmed to have COVID-19 infection. We were surprised by the magnitude of COVID’s impact on the cardiac arrest incidence.”

The implications for clinical decision-making are to think outside of COVID-19 infection, said Dr. Girotra. In the current study, “Although overall survival of cardiac arrest in COVID-positive patients was 30% lower, compared to non-COVID patients, it was not as poor as previously reported. COVID-19 infection alone should not be considered the sole factor for making decisions regarding CPR.

“Over the past 2 decades, we have experienced large gains in survival for in-hospital cardiac arrest. However, the COVID-19 pandemic has eroded these gains,” said Dr. Girotra. “Future studies are needed to monitor the impact of any new variants on cardiac arrest care,” as well as studies “to see whether we return to the prepandemic levels of IHCA survival once the pandemic recedes.”

Dr. Girotra has no relevant financial disclosures.

Survival after in-hospital cardiac arrest was roughly one-third lower in patients with COVID-19 infections compared to uninfected patients, based on data from nearly 25,000 individuals.

Survival rates of less than 3% were reported in the United States and China for patients who suffered in-hospital cardiac arrest (IHCA) while infected with COVID-19 early in the pandemic, but the data came from small, single-center studies in overwhelmed hospitals, wrote Saket Girotra, MD, of the University of Iowa, Iowa City, and fellow American Heart Association Get With the Guidelines–Resuscitation Investigators. Whether these early reports reflect the broader experience of patients with COVID-19 in hospitals in the United States remains unknown.

In a study published as a research letter in JAMA Network Open, the researchers reviewed data from the American Heart Association Get With the Guidelines–Resuscitation registry. The registry collects detailed information on patients aged 18 years and older who experience cardiac arrest at participating hospitals in the United States. The study population included 24,915 patients aged 18 years and older from 286 hospitals who experienced IHCA during March–December 2020. The mean age of the patients was 64.7 years; 61.1% were White, 24.8% were Black, 3.8% were of other race or ethnicity, and 10.3% were of unknown race or ethnicity.

The primary outcomes were survival to discharge and return of spontaneous circulation (ROSC) for at least 20 minutes.

A total of 5,916 patients (23.7%) had suspected or confirmed COVID-19 infections, and infected patients were more likely to be younger, male, and Black. Patients with COVID-19 infections also were significantly more likely than noninfected patients to have nonshockable rhythm, pneumonia, respiratory insufficiency, or sepsis, and to be on mechanical ventilation or vasopressors when the IHCA occurred, the researchers noted.

Survival rates to hospital discharge were 11.9% for COVID-19 patients, compared with 23.5% for noninfected patients (adjusted relative risk, 0.65; P < .001). ROSC was 53.7% and 63.6%, for infected and noninfected patients, respectively (aRR, 0.86; P < .001).

COVID-19 patients also were more likely than noninfected patients to receive delayed defibrillation, the researchers said. “Although delays in resuscitation, especially defibrillation, may have contributed to lower survival, the negative association of COVID-19 with survival in this study was consistent across subgroups, including patients who received timely treatment with defibrillation and epinephrine.”

The extremely low survival rate in early pandemic studies likely reflected the overwhelming burden on health systems at the time, the researchers said in their discussion.

The study findings were limited by several factors, including potential confounding from unmeasured variables, the use of a quality improvement registry that may not reflect nonparticipating hospitals, and potential false-positive COVID-19 cases. However, the result support findings from recent studies of multiple centers and extend clinical knowledge by comparing infected and noninfected patients from a larger group of hospitals than previously studied, the researchers said.

“We believe that these data will be relevant to health care providers and hospital administrators as the COVID-19 pandemic continues,” they concluded.
 

Think beyond COVID-19 for cardiac care

“Early during the pandemic, questions were raised whether COVID-19 patients should be treated with CPR,” Dr. Girotra said in an interview. “This was because initial studies had found a dismal survival of 0%-3% in COVID patients treated with CPR. The potential of transmitting the virus to health care professionals during CPR further heightened these concerns. We wanted to know whether the poor survival reported in these initial studies were broadly representative.”

Dr. Girotra said that some of the study findings were surprising. “We found that of all patients with IHCA in 2020 in our study, one in four were suspected or confirmed to have COVID-19 infection. We were surprised by the magnitude of COVID’s impact on the cardiac arrest incidence.”

The implications for clinical decision-making are to think outside of COVID-19 infection, said Dr. Girotra. In the current study, “Although overall survival of cardiac arrest in COVID-positive patients was 30% lower, compared to non-COVID patients, it was not as poor as previously reported. COVID-19 infection alone should not be considered the sole factor for making decisions regarding CPR.

“Over the past 2 decades, we have experienced large gains in survival for in-hospital cardiac arrest. However, the COVID-19 pandemic has eroded these gains,” said Dr. Girotra. “Future studies are needed to monitor the impact of any new variants on cardiac arrest care,” as well as studies “to see whether we return to the prepandemic levels of IHCA survival once the pandemic recedes.”

Dr. Girotra has no relevant financial disclosures.

A new statistical analysis of an existing meta-analysis reaffirms a finding that hospitalized patients with COVID-19 who are on simple oxygen or noninvasive ventilation can benefit from treatment with the arthritis drug tocilizumab (Actemra) in conjunction with corticosteroids. But the report also casts doubt on the effectiveness of tocilizumab in patients who are on ventilators.

“Clinicians should prescribe steroids and tocilizumab for hospitalized patients needing simple oxygen or noninvasive ventilation,” epidemiologist and study coauthor James (Jay) Brophy, MD, PhD, of McGill University, Montreal, said in an interview. “Further research is required to answer the question of whether tocilizumab is beneficial in patients requiring invasive ventilation, and consideration of participation in further tocilizumab studies seems reasonable.”

The new analysis was published Feb. 28, 2022, in JAMA Network Open.

The initial meta-analysis, published in 2021 in JAMA, was conducted by the WHO Rapid Evidence Appraisal for COVID-19 Therapies Working Group. It analyzed the results of 27 randomized trials that explored the use of interleukin-6 antagonists, including tocilizumab, and found that “28-day all-cause mortality was lower among patients who received IL-6 antagonists, compared with those who received usual care or placebo (summary odds ratio, 0.86). The summary ORs for the association of IL-6 antagonist treatment with 28-day all-cause mortality were 0.78 with concomitant administration of corticosteroids versus 1.09 without administration of corticosteroids.”

For the new report, researchers conducted a Bayesian statistical analysis of 15 studies within the meta-analysis that specifically examined the use of the rheumatoid arthritis drug tocilizumab. “Bayesian analysis allows one to make direct probability statements regarding the exact magnitude and the certainty of any benefit,” Dr. Brophy said. “This provides clinicians with the information they require to make well-informed decisions.”

The analysis estimated that the probability of a “clinically meaningful association” (absolute mortality risk difference, >1%) because of use of tocilizumab was higher than 95% in patients receiving simple oxygen and higher than 90% in those receiving noninvasive ventilation. But the probability was only about 67% higher in those receiving invasive mechanical ventilation.

Also, the researchers estimated that about 72% of future tocilizumab studies in patients on invasive mechanical ventilation would show a benefit.

The new analysis findings don’t add much to existing knowledge, said nephrologist David E. Leaf, MD, MMSc, of Harvard Medical School, Boston, who’s studied tocilizumab in COVID-19.

“The signal seems to be consistent that there is a greater benefit of tocilizumab in less ill patients than those who are more ill – e.g., those who are receiving invasive mechanical ventilation,” Dr. Leaf said in an interview. “This is interesting because in clinical practice the opposite approach is often undertaken, with tocilizumab use only being used in the sickest patients, even though the patients most likely to benefit seem to be those who are less ill.”

Clinically, he said, “hospitalized patients with COVID-19 should receive tocilizumab unless they have a clear contraindication and assuming it can be administered relatively early in their disease course. Earlier administration, before the onset of irreversible organ injury, is likely to have greater benefit.”

Dr. Leaf also noted it’s unknown whether the drug is helpful in several groups – patients presenting later in the course of COVID-19 illness, patients with additional infections, and immunocompromised patients.

It’s also not clear if tocilizumab benefits patients with lower levels of C-reactive protein, Shruti Gupta, MD, MPH, a nephrologist at Brigham and Women’s Hospital in Boston, said in an interview. The RECOVERY trial, for example, limited subjects to those with C-reactive protein of at least 75 mg/L.

Dr. Leaf and Dr. Gupta coauthored a 2021 cohort study analyzing mortality rates in patients with COVID-19 who were treated with tocilizumab versus those who were not.

No study funding was reported. Dr. Brophy, Dr. Leaf, and Dr. Gupta disclosed no relevant financial relationships. One study author reported participating in one of the randomized clinical trials included in the analysis.

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

A new statistical analysis of an existing meta-analysis reaffirms a finding that hospitalized patients with COVID-19 who are on simple oxygen or noninvasive ventilation can benefit from treatment with the arthritis drug tocilizumab (Actemra) in conjunction with corticosteroids. But the report also casts doubt on the effectiveness of tocilizumab in patients who are on ventilators.

“Clinicians should prescribe steroids and tocilizumab for hospitalized patients needing simple oxygen or noninvasive ventilation,” epidemiologist and study coauthor James (Jay) Brophy, MD, PhD, of McGill University, Montreal, said in an interview. “Further research is required to answer the question of whether tocilizumab is beneficial in patients requiring invasive ventilation, and consideration of participation in further tocilizumab studies seems reasonable.”

The new analysis was published Feb. 28, 2022, in JAMA Network Open.

The initial meta-analysis, published in 2021 in JAMA, was conducted by the WHO Rapid Evidence Appraisal for COVID-19 Therapies Working Group. It analyzed the results of 27 randomized trials that explored the use of interleukin-6 antagonists, including tocilizumab, and found that “28-day all-cause mortality was lower among patients who received IL-6 antagonists, compared with those who received usual care or placebo (summary odds ratio, 0.86). The summary ORs for the association of IL-6 antagonist treatment with 28-day all-cause mortality were 0.78 with concomitant administration of corticosteroids versus 1.09 without administration of corticosteroids.”

For the new report, researchers conducted a Bayesian statistical analysis of 15 studies within the meta-analysis that specifically examined the use of the rheumatoid arthritis drug tocilizumab. “Bayesian analysis allows one to make direct probability statements regarding the exact magnitude and the certainty of any benefit,” Dr. Brophy said. “This provides clinicians with the information they require to make well-informed decisions.”

The analysis estimated that the probability of a “clinically meaningful association” (absolute mortality risk difference, >1%) because of use of tocilizumab was higher than 95% in patients receiving simple oxygen and higher than 90% in those receiving noninvasive ventilation. But the probability was only about 67% higher in those receiving invasive mechanical ventilation.

Also, the researchers estimated that about 72% of future tocilizumab studies in patients on invasive mechanical ventilation would show a benefit.

The new analysis findings don’t add much to existing knowledge, said nephrologist David E. Leaf, MD, MMSc, of Harvard Medical School, Boston, who’s studied tocilizumab in COVID-19.

“The signal seems to be consistent that there is a greater benefit of tocilizumab in less ill patients than those who are more ill – e.g., those who are receiving invasive mechanical ventilation,” Dr. Leaf said in an interview. “This is interesting because in clinical practice the opposite approach is often undertaken, with tocilizumab use only being used in the sickest patients, even though the patients most likely to benefit seem to be those who are less ill.”

Clinically, he said, “hospitalized patients with COVID-19 should receive tocilizumab unless they have a clear contraindication and assuming it can be administered relatively early in their disease course. Earlier administration, before the onset of irreversible organ injury, is likely to have greater benefit.”

Dr. Leaf also noted it’s unknown whether the drug is helpful in several groups – patients presenting later in the course of COVID-19 illness, patients with additional infections, and immunocompromised patients.

It’s also not clear if tocilizumab benefits patients with lower levels of C-reactive protein, Shruti Gupta, MD, MPH, a nephrologist at Brigham and Women’s Hospital in Boston, said in an interview. The RECOVERY trial, for example, limited subjects to those with C-reactive protein of at least 75 mg/L.

Dr. Leaf and Dr. Gupta coauthored a 2021 cohort study analyzing mortality rates in patients with COVID-19 who were treated with tocilizumab versus those who were not.

No study funding was reported. Dr. Brophy, Dr. Leaf, and Dr. Gupta disclosed no relevant financial relationships. One study author reported participating in one of the randomized clinical trials included in the analysis.

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

A new statistical analysis of an existing meta-analysis reaffirms a finding that hospitalized patients with COVID-19 who are on simple oxygen or noninvasive ventilation can benefit from treatment with the arthritis drug tocilizumab (Actemra) in conjunction with corticosteroids. But the report also casts doubt on the effectiveness of tocilizumab in patients who are on ventilators.

“Clinicians should prescribe steroids and tocilizumab for hospitalized patients needing simple oxygen or noninvasive ventilation,” epidemiologist and study coauthor James (Jay) Brophy, MD, PhD, of McGill University, Montreal, said in an interview. “Further research is required to answer the question of whether tocilizumab is beneficial in patients requiring invasive ventilation, and consideration of participation in further tocilizumab studies seems reasonable.”

The new analysis was published Feb. 28, 2022, in JAMA Network Open.

The initial meta-analysis, published in 2021 in JAMA, was conducted by the WHO Rapid Evidence Appraisal for COVID-19 Therapies Working Group. It analyzed the results of 27 randomized trials that explored the use of interleukin-6 antagonists, including tocilizumab, and found that “28-day all-cause mortality was lower among patients who received IL-6 antagonists, compared with those who received usual care or placebo (summary odds ratio, 0.86). The summary ORs for the association of IL-6 antagonist treatment with 28-day all-cause mortality were 0.78 with concomitant administration of corticosteroids versus 1.09 without administration of corticosteroids.”

For the new report, researchers conducted a Bayesian statistical analysis of 15 studies within the meta-analysis that specifically examined the use of the rheumatoid arthritis drug tocilizumab. “Bayesian analysis allows one to make direct probability statements regarding the exact magnitude and the certainty of any benefit,” Dr. Brophy said. “This provides clinicians with the information they require to make well-informed decisions.”

The analysis estimated that the probability of a “clinically meaningful association” (absolute mortality risk difference, >1%) because of use of tocilizumab was higher than 95% in patients receiving simple oxygen and higher than 90% in those receiving noninvasive ventilation. But the probability was only about 67% higher in those receiving invasive mechanical ventilation.

Also, the researchers estimated that about 72% of future tocilizumab studies in patients on invasive mechanical ventilation would show a benefit.

The new analysis findings don’t add much to existing knowledge, said nephrologist David E. Leaf, MD, MMSc, of Harvard Medical School, Boston, who’s studied tocilizumab in COVID-19.

“The signal seems to be consistent that there is a greater benefit of tocilizumab in less ill patients than those who are more ill – e.g., those who are receiving invasive mechanical ventilation,” Dr. Leaf said in an interview. “This is interesting because in clinical practice the opposite approach is often undertaken, with tocilizumab use only being used in the sickest patients, even though the patients most likely to benefit seem to be those who are less ill.”

Clinically, he said, “hospitalized patients with COVID-19 should receive tocilizumab unless they have a clear contraindication and assuming it can be administered relatively early in their disease course. Earlier administration, before the onset of irreversible organ injury, is likely to have greater benefit.”

Dr. Leaf also noted it’s unknown whether the drug is helpful in several groups – patients presenting later in the course of COVID-19 illness, patients with additional infections, and immunocompromised patients.

It’s also not clear if tocilizumab benefits patients with lower levels of C-reactive protein, Shruti Gupta, MD, MPH, a nephrologist at Brigham and Women’s Hospital in Boston, said in an interview. The RECOVERY trial, for example, limited subjects to those with C-reactive protein of at least 75 mg/L.

Dr. Leaf and Dr. Gupta coauthored a 2021 cohort study analyzing mortality rates in patients with COVID-19 who were treated with tocilizumab versus those who were not.

No study funding was reported. Dr. Brophy, Dr. Leaf, and Dr. Gupta disclosed no relevant financial relationships. One study author reported participating in one of the randomized clinical trials included in the analysis.

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

LAS VEGAS – While frontline health care workers may have been disproportionately impacted by the COVID-19 pandemic, the entire workforce has experienced some level of anxiety, stress, loss, grief, and trauma, according to Jon A. Levenson, MD.

“There are those who will need mental health treatment, so creating an easy way to reach out for help and facilitate linkage with care is critically important,” Dr. Levenson, associate professor of psychiatry at Columbia University Irving Medical Center, New York, said during an annual psychopharmacology update held by the Nevada Psychiatric Association. “The vast majority of our workforce will thrive with proper support. But what can each of us do to take care of ourselves?”

Step one is to recognize common stress reactions as well as signs of distress. He offered the oxygen mask metaphor, the idea that before we can take care of and support anyone else, we must first take care of ourselves. “When people are stressed, they don’t always think about the oxygen mask metaphor,” Dr. Levenson said. Step two is to practice and model self-care by adopting principles often discussed in acceptance and commitment therapy: to focus on what you can control, not on what you can’t control.

“We can’t control the amount of toilet paper at the grocery store, how long the pandemic will last, or how others have reacted,” Dr. Levenson said. “We also can’t control other people’s motives, predict what will happen, or the actions of others, including whether they will follow social distancing guidelines or not.”

How about what we can control? One is a positive attitude, “which can sustain people during times of intense stress,” he said. “Other things that we can do include turn off the news and find fun and enriching activities to do at home, whether it be playing a game with family or reaching out to friends through an iPad or a smartphone. You can also follow [Centers for Disease Control and Prevention] recommendations, control your own social distancing, and limit social media activity, which can be stressful. We can also control our kindness and grace.” He added that resilience does not mean “snapping back” to how you were before the pandemic, but rather “learning to integrate the adverse experiences into who you are and growing with them, which is sometimes known as posttraumatic growth.”

Dr. Levenson encouraged health care workers to use their coping resources, connect to others, and cultivate their values and purpose in life as they navigate these challenging times. “You also want to promote realistic optimism; find a way to stay positive,” he said. “We emphasize to our staff that while you won’t forget this time, focus on what you can control – your positive relationships – and remind yourself of your values and sources of gratitude. Figure out, and reflect on, what you care about, and then care about it. Remind yourself in a deliberate, purposeful way what anchors you to your job, which in the health care setting tends to be a desire to care for others, to assist those in need, and to work in teams. We also encourage staff to refrain from judgment. Guilt is a normal and near-universal response to this stressor, but there are many ways to contribute without a judgmental or guilty tone.”

Other tips for self-support are to remind yourself that it is not selfish to take breaks. “The needs of your patients are not more important than your own needs,” Dr. Levenson said. “Working nonstop can put you at higher risk for stress, exhaustion, and illness. You may need to give yourself more time to step back and recover from workplace challenges or extended coverage for peers; this is important. We remind our staff that your work may feel more emotionally draining than usual because everything is more intense overall during the COVID-19 pandemic. This reminder helps staff normalize what they already may be experiencing, and in turn, to further support each other.”

Soothing activities to relieve stress include meditation, prayer, deep and slow breathing, relaxation exercises, yoga, mindfulness, stretching, staying hydrated, eating healthfully, exercise, and getting sufficient sleep. Other stress management tips include avoiding excessive alcohol intake, reaching out to others, asking for assistance, and delegating when possible. “We want to promote psychological flexibility: the ability to stay in contact with the present moment,” he said. “We encourage our peers to be aware of unpleasant thoughts and feelings, and to try to redirect negative thought patterns to a proactive problem-solving approach; this includes choosing one’s behaviors based on the situation and personal values.”

Dr. Levenson reported having no disclosures related to his presentation.

LAS VEGAS – While frontline health care workers may have been disproportionately impacted by the COVID-19 pandemic, the entire workforce has experienced some level of anxiety, stress, loss, grief, and trauma, according to Jon A. Levenson, MD.

“There are those who will need mental health treatment, so creating an easy way to reach out for help and facilitate linkage with care is critically important,” Dr. Levenson, associate professor of psychiatry at Columbia University Irving Medical Center, New York, said during an annual psychopharmacology update held by the Nevada Psychiatric Association. “The vast majority of our workforce will thrive with proper support. But what can each of us do to take care of ourselves?”

Step one is to recognize common stress reactions as well as signs of distress. He offered the oxygen mask metaphor, the idea that before we can take care of and support anyone else, we must first take care of ourselves. “When people are stressed, they don’t always think about the oxygen mask metaphor,” Dr. Levenson said. Step two is to practice and model self-care by adopting principles often discussed in acceptance and commitment therapy: to focus on what you can control, not on what you can’t control.

“We can’t control the amount of toilet paper at the grocery store, how long the pandemic will last, or how others have reacted,” Dr. Levenson said. “We also can’t control other people’s motives, predict what will happen, or the actions of others, including whether they will follow social distancing guidelines or not.”

How about what we can control? One is a positive attitude, “which can sustain people during times of intense stress,” he said. “Other things that we can do include turn off the news and find fun and enriching activities to do at home, whether it be playing a game with family or reaching out to friends through an iPad or a smartphone. You can also follow [Centers for Disease Control and Prevention] recommendations, control your own social distancing, and limit social media activity, which can be stressful. We can also control our kindness and grace.” He added that resilience does not mean “snapping back” to how you were before the pandemic, but rather “learning to integrate the adverse experiences into who you are and growing with them, which is sometimes known as posttraumatic growth.”

Dr. Levenson encouraged health care workers to use their coping resources, connect to others, and cultivate their values and purpose in life as they navigate these challenging times. “You also want to promote realistic optimism; find a way to stay positive,” he said. “We emphasize to our staff that while you won’t forget this time, focus on what you can control – your positive relationships – and remind yourself of your values and sources of gratitude. Figure out, and reflect on, what you care about, and then care about it. Remind yourself in a deliberate, purposeful way what anchors you to your job, which in the health care setting tends to be a desire to care for others, to assist those in need, and to work in teams. We also encourage staff to refrain from judgment. Guilt is a normal and near-universal response to this stressor, but there are many ways to contribute without a judgmental or guilty tone.”

Other tips for self-support are to remind yourself that it is not selfish to take breaks. “The needs of your patients are not more important than your own needs,” Dr. Levenson said. “Working nonstop can put you at higher risk for stress, exhaustion, and illness. You may need to give yourself more time to step back and recover from workplace challenges or extended coverage for peers; this is important. We remind our staff that your work may feel more emotionally draining than usual because everything is more intense overall during the COVID-19 pandemic. This reminder helps staff normalize what they already may be experiencing, and in turn, to further support each other.”

Soothing activities to relieve stress include meditation, prayer, deep and slow breathing, relaxation exercises, yoga, mindfulness, stretching, staying hydrated, eating healthfully, exercise, and getting sufficient sleep. Other stress management tips include avoiding excessive alcohol intake, reaching out to others, asking for assistance, and delegating when possible. “We want to promote psychological flexibility: the ability to stay in contact with the present moment,” he said. “We encourage our peers to be aware of unpleasant thoughts and feelings, and to try to redirect negative thought patterns to a proactive problem-solving approach; this includes choosing one’s behaviors based on the situation and personal values.”

Dr. Levenson reported having no disclosures related to his presentation.

LAS VEGAS – While frontline health care workers may have been disproportionately impacted by the COVID-19 pandemic, the entire workforce has experienced some level of anxiety, stress, loss, grief, and trauma, according to Jon A. Levenson, MD.

“There are those who will need mental health treatment, so creating an easy way to reach out for help and facilitate linkage with care is critically important,” Dr. Levenson, associate professor of psychiatry at Columbia University Irving Medical Center, New York, said during an annual psychopharmacology update held by the Nevada Psychiatric Association. “The vast majority of our workforce will thrive with proper support. But what can each of us do to take care of ourselves?”

Step one is to recognize common stress reactions as well as signs of distress. He offered the oxygen mask metaphor, the idea that before we can take care of and support anyone else, we must first take care of ourselves. “When people are stressed, they don’t always think about the oxygen mask metaphor,” Dr. Levenson said. Step two is to practice and model self-care by adopting principles often discussed in acceptance and commitment therapy: to focus on what you can control, not on what you can’t control.

“We can’t control the amount of toilet paper at the grocery store, how long the pandemic will last, or how others have reacted,” Dr. Levenson said. “We also can’t control other people’s motives, predict what will happen, or the actions of others, including whether they will follow social distancing guidelines or not.”

How about what we can control? One is a positive attitude, “which can sustain people during times of intense stress,” he said. “Other things that we can do include turn off the news and find fun and enriching activities to do at home, whether it be playing a game with family or reaching out to friends through an iPad or a smartphone. You can also follow [Centers for Disease Control and Prevention] recommendations, control your own social distancing, and limit social media activity, which can be stressful. We can also control our kindness and grace.” He added that resilience does not mean “snapping back” to how you were before the pandemic, but rather “learning to integrate the adverse experiences into who you are and growing with them, which is sometimes known as posttraumatic growth.”

Dr. Levenson encouraged health care workers to use their coping resources, connect to others, and cultivate their values and purpose in life as they navigate these challenging times. “You also want to promote realistic optimism; find a way to stay positive,” he said. “We emphasize to our staff that while you won’t forget this time, focus on what you can control – your positive relationships – and remind yourself of your values and sources of gratitude. Figure out, and reflect on, what you care about, and then care about it. Remind yourself in a deliberate, purposeful way what anchors you to your job, which in the health care setting tends to be a desire to care for others, to assist those in need, and to work in teams. We also encourage staff to refrain from judgment. Guilt is a normal and near-universal response to this stressor, but there are many ways to contribute without a judgmental or guilty tone.”

Other tips for self-support are to remind yourself that it is not selfish to take breaks. “The needs of your patients are not more important than your own needs,” Dr. Levenson said. “Working nonstop can put you at higher risk for stress, exhaustion, and illness. You may need to give yourself more time to step back and recover from workplace challenges or extended coverage for peers; this is important. We remind our staff that your work may feel more emotionally draining than usual because everything is more intense overall during the COVID-19 pandemic. This reminder helps staff normalize what they already may be experiencing, and in turn, to further support each other.”

Soothing activities to relieve stress include meditation, prayer, deep and slow breathing, relaxation exercises, yoga, mindfulness, stretching, staying hydrated, eating healthfully, exercise, and getting sufficient sleep. Other stress management tips include avoiding excessive alcohol intake, reaching out to others, asking for assistance, and delegating when possible. “We want to promote psychological flexibility: the ability to stay in contact with the present moment,” he said. “We encourage our peers to be aware of unpleasant thoughts and feelings, and to try to redirect negative thought patterns to a proactive problem-solving approach; this includes choosing one’s behaviors based on the situation and personal values.”

Dr. Levenson reported having no disclosures related to his presentation.

Among individuals with multiple sclerosis (MS), disease modifying therapies (DMTs) are associated with a reduced humoral response to SARS-CoV-2 vaccines, according to a new retrospective analysis. The link is particularly strong among B-cell depleting drugs.

“A lot of patients ask us if having MS by itself affects the vaccine response. We did not find that, but it’s about the disease-modifying therapy that a patient is being treated with,” Tirisham Gyang, MD, said in an interview. Dr. Gyang presented the study at a poster session during the annual meeting held by the Americas Committee for Treatment and Research in Multiple Sclerosis (ACTRIMS).

“These patients (on DMTs) had decreased neutralizing antibody levels to the vaccine after they received it. We also saw a similar marker in drugs that modulate the sphingosine S-1 receptor. These patients also had a lower titer. It wasn’t statistically significant, but we think it’s positive. It was underpowered because there was a small number of patients in that subgroup,” said Dr. Gyang, assistant professor of neurology at The Ohio State University.

The results can inform vaccine strategies among people with MS, but the issue remains complex. “I don’t know that we could do a blanket statement and say, if you wait this amount of time, everybody will be okay. It’s a very individualized approach, and patients need to discuss timing of vaccines with their providers, because we know that waiting is better. It’s preferable to wait until towards the end of the dosing cycle. The other factor is making sure that the MS is well treated,” said Dr. Gyang.

The researchers prospectively followed 83 MS patients at the The Ohio State University Wexner Medical Center. Among the cohort, 71% were female. Fifty-one subjects had serum samples analyzed following mRNA COVID-19 vaccination, and they were compared with 38 health care worker controls.

After vaccination, people with MS had about 2.4-fold lower levels of half-maximal neutralization titer (NT50) values compared with health care worker controls. This appeared to be driven primarily by DMTs. There was a more than ninefold reduction in the neutralizing antibody (nAb) response among 13 patients on B-cell depleting agents, compared with no therapy or other therapies (P < .001). Among of individuals on these agents, 61.5% had no detectable nAb.

The researchers also found an association between postvaccine NT50 values and when the vaccine was received compared with the last infusion of B-cell depleting agents. Every additional day since the previous infusion was associated with a 3.7% increase in NT50 value (P = .0032).

The average length of exposure to B-cell depleting agents was 24 months and the median was 25 months. There was no association between length of time on a B-cell depleting agent and NT50 values after vaccination (Spearman correlation 0.35, P = .24).

Subanalyses by sex and vaccine type revealed no differences in nAb levels.

The study did not look at T-cell responses after vaccination or the effect of T-cell depleting agents, and T cells likely still provide some protection, according to Dr. Gyang. “Even though the vaccine response may not be as robust as it would have been if they were not on the drug, there is still some degree of protection,” she said.
 

Some answers, more questions

The study is important, even though it was presented at the time that the COVID-19 Omicron variant surge was waning. “COVID still remains a major concern. Even though it seems to be on the wane at the moment, that doesn’t mean it will be on the wane next week,” said Mark Gudesblatt, MD, medical director at South Shore Neurologic Associates (Patchogue, N.Y.), who was asked to comment on the study.

He noted that about 21% of patients in the study who received a vaccination had no detectable antibodies. “That’s a problem. You need to pick a medication that works, but not if the medication puts you at risk for other problems, especially in the world of now, where we know there are viral pandemics that occur. And that calls into question: What if you’re immunocompromised and you get a flu vaccine or a tetanus vaccine? How much do we know about the vaccination response to most of these? No one really considers [vaccine response] when choosing a medication,” said Dr. Gudesblatt.

The results broadly confirm what has been seen in other studies, though its focus on the humoral response is a limitation, according to Patricia Coyle, MD, professor of neurology and director of Stony Brook (N.Y.) MS Comprehensive Care Center. “For example, there have been independent studies with the (anti-CD-20 therapies) that indicate that they have a normal cell-mediated vaccine response to the COVID vaccine, even though the antibody response may be impaired in a significant number of individuals, though as you continue to vaccinate the antibody response seems to get better,” Dr. Coyle said in an interview.

Dr. Gyang has served as consultant for Genentech, Horizon Therapeutics, Greenwich Biosciences and EMD Serono. Dr. Gudesblatt has no relevant financial disclosures. Dr. Coyle has consulted or received speaker fees from Accordant, Alexion, Biogen, Bristol Myers Squibb, Celgene, GlaxoSmithKline, Horizon Therapeutics, Janssen, Mylan, Novartis, Sanofi Genzyme, TG Therapeutics, and Viela Bio. Dr. Coyle has received research funding from Actelion, Alkermes, Celgene, CorEvitas LLC, Genentech/Roche, MedDay, Novartis, and Sanofi Genzyme.

Among individuals with multiple sclerosis (MS), disease modifying therapies (DMTs) are associated with a reduced humoral response to SARS-CoV-2 vaccines, according to a new retrospective analysis. The link is particularly strong among B-cell depleting drugs.

“A lot of patients ask us if having MS by itself affects the vaccine response. We did not find that, but it’s about the disease-modifying therapy that a patient is being treated with,” Tirisham Gyang, MD, said in an interview. Dr. Gyang presented the study at a poster session during the annual meeting held by the Americas Committee for Treatment and Research in Multiple Sclerosis (ACTRIMS).

“These patients (on DMTs) had decreased neutralizing antibody levels to the vaccine after they received it. We also saw a similar marker in drugs that modulate the sphingosine S-1 receptor. These patients also had a lower titer. It wasn’t statistically significant, but we think it’s positive. It was underpowered because there was a small number of patients in that subgroup,” said Dr. Gyang, assistant professor of neurology at The Ohio State University.

The results can inform vaccine strategies among people with MS, but the issue remains complex. “I don’t know that we could do a blanket statement and say, if you wait this amount of time, everybody will be okay. It’s a very individualized approach, and patients need to discuss timing of vaccines with their providers, because we know that waiting is better. It’s preferable to wait until towards the end of the dosing cycle. The other factor is making sure that the MS is well treated,” said Dr. Gyang.

The researchers prospectively followed 83 MS patients at the The Ohio State University Wexner Medical Center. Among the cohort, 71% were female. Fifty-one subjects had serum samples analyzed following mRNA COVID-19 vaccination, and they were compared with 38 health care worker controls.

After vaccination, people with MS had about 2.4-fold lower levels of half-maximal neutralization titer (NT50) values compared with health care worker controls. This appeared to be driven primarily by DMTs. There was a more than ninefold reduction in the neutralizing antibody (nAb) response among 13 patients on B-cell depleting agents, compared with no therapy or other therapies (P < .001). Among of individuals on these agents, 61.5% had no detectable nAb.

The researchers also found an association between postvaccine NT50 values and when the vaccine was received compared with the last infusion of B-cell depleting agents. Every additional day since the previous infusion was associated with a 3.7% increase in NT50 value (P = .0032).

The average length of exposure to B-cell depleting agents was 24 months and the median was 25 months. There was no association between length of time on a B-cell depleting agent and NT50 values after vaccination (Spearman correlation 0.35, P = .24).

Subanalyses by sex and vaccine type revealed no differences in nAb levels.

The study did not look at T-cell responses after vaccination or the effect of T-cell depleting agents, and T cells likely still provide some protection, according to Dr. Gyang. “Even though the vaccine response may not be as robust as it would have been if they were not on the drug, there is still some degree of protection,” she said.
 

Some answers, more questions

The study is important, even though it was presented at the time that the COVID-19 Omicron variant surge was waning. “COVID still remains a major concern. Even though it seems to be on the wane at the moment, that doesn’t mean it will be on the wane next week,” said Mark Gudesblatt, MD, medical director at South Shore Neurologic Associates (Patchogue, N.Y.), who was asked to comment on the study.

He noted that about 21% of patients in the study who received a vaccination had no detectable antibodies. “That’s a problem. You need to pick a medication that works, but not if the medication puts you at risk for other problems, especially in the world of now, where we know there are viral pandemics that occur. And that calls into question: What if you’re immunocompromised and you get a flu vaccine or a tetanus vaccine? How much do we know about the vaccination response to most of these? No one really considers [vaccine response] when choosing a medication,” said Dr. Gudesblatt.

The results broadly confirm what has been seen in other studies, though its focus on the humoral response is a limitation, according to Patricia Coyle, MD, professor of neurology and director of Stony Brook (N.Y.) MS Comprehensive Care Center. “For example, there have been independent studies with the (anti-CD-20 therapies) that indicate that they have a normal cell-mediated vaccine response to the COVID vaccine, even though the antibody response may be impaired in a significant number of individuals, though as you continue to vaccinate the antibody response seems to get better,” Dr. Coyle said in an interview.

Dr. Gyang has served as consultant for Genentech, Horizon Therapeutics, Greenwich Biosciences and EMD Serono. Dr. Gudesblatt has no relevant financial disclosures. Dr. Coyle has consulted or received speaker fees from Accordant, Alexion, Biogen, Bristol Myers Squibb, Celgene, GlaxoSmithKline, Horizon Therapeutics, Janssen, Mylan, Novartis, Sanofi Genzyme, TG Therapeutics, and Viela Bio. Dr. Coyle has received research funding from Actelion, Alkermes, Celgene, CorEvitas LLC, Genentech/Roche, MedDay, Novartis, and Sanofi Genzyme.

Among individuals with multiple sclerosis (MS), disease modifying therapies (DMTs) are associated with a reduced humoral response to SARS-CoV-2 vaccines, according to a new retrospective analysis. The link is particularly strong among B-cell depleting drugs.

“A lot of patients ask us if having MS by itself affects the vaccine response. We did not find that, but it’s about the disease-modifying therapy that a patient is being treated with,” Tirisham Gyang, MD, said in an interview. Dr. Gyang presented the study at a poster session during the annual meeting held by the Americas Committee for Treatment and Research in Multiple Sclerosis (ACTRIMS).

“These patients (on DMTs) had decreased neutralizing antibody levels to the vaccine after they received it. We also saw a similar marker in drugs that modulate the sphingosine S-1 receptor. These patients also had a lower titer. It wasn’t statistically significant, but we think it’s positive. It was underpowered because there was a small number of patients in that subgroup,” said Dr. Gyang, assistant professor of neurology at The Ohio State University.

The results can inform vaccine strategies among people with MS, but the issue remains complex. “I don’t know that we could do a blanket statement and say, if you wait this amount of time, everybody will be okay. It’s a very individualized approach, and patients need to discuss timing of vaccines with their providers, because we know that waiting is better. It’s preferable to wait until towards the end of the dosing cycle. The other factor is making sure that the MS is well treated,” said Dr. Gyang.

The researchers prospectively followed 83 MS patients at the The Ohio State University Wexner Medical Center. Among the cohort, 71% were female. Fifty-one subjects had serum samples analyzed following mRNA COVID-19 vaccination, and they were compared with 38 health care worker controls.

After vaccination, people with MS had about 2.4-fold lower levels of half-maximal neutralization titer (NT50) values compared with health care worker controls. This appeared to be driven primarily by DMTs. There was a more than ninefold reduction in the neutralizing antibody (nAb) response among 13 patients on B-cell depleting agents, compared with no therapy or other therapies (P < .001). Among of individuals on these agents, 61.5% had no detectable nAb.

The researchers also found an association between postvaccine NT50 values and when the vaccine was received compared with the last infusion of B-cell depleting agents. Every additional day since the previous infusion was associated with a 3.7% increase in NT50 value (P = .0032).

The average length of exposure to B-cell depleting agents was 24 months and the median was 25 months. There was no association between length of time on a B-cell depleting agent and NT50 values after vaccination (Spearman correlation 0.35, P = .24).

Subanalyses by sex and vaccine type revealed no differences in nAb levels.

The study did not look at T-cell responses after vaccination or the effect of T-cell depleting agents, and T cells likely still provide some protection, according to Dr. Gyang. “Even though the vaccine response may not be as robust as it would have been if they were not on the drug, there is still some degree of protection,” she said.
 

Some answers, more questions

The study is important, even though it was presented at the time that the COVID-19 Omicron variant surge was waning. “COVID still remains a major concern. Even though it seems to be on the wane at the moment, that doesn’t mean it will be on the wane next week,” said Mark Gudesblatt, MD, medical director at South Shore Neurologic Associates (Patchogue, N.Y.), who was asked to comment on the study.

He noted that about 21% of patients in the study who received a vaccination had no detectable antibodies. “That’s a problem. You need to pick a medication that works, but not if the medication puts you at risk for other problems, especially in the world of now, where we know there are viral pandemics that occur. And that calls into question: What if you’re immunocompromised and you get a flu vaccine or a tetanus vaccine? How much do we know about the vaccination response to most of these? No one really considers [vaccine response] when choosing a medication,” said Dr. Gudesblatt.

The results broadly confirm what has been seen in other studies, though its focus on the humoral response is a limitation, according to Patricia Coyle, MD, professor of neurology and director of Stony Brook (N.Y.) MS Comprehensive Care Center. “For example, there have been independent studies with the (anti-CD-20 therapies) that indicate that they have a normal cell-mediated vaccine response to the COVID vaccine, even though the antibody response may be impaired in a significant number of individuals, though as you continue to vaccinate the antibody response seems to get better,” Dr. Coyle said in an interview.

Dr. Gyang has served as consultant for Genentech, Horizon Therapeutics, Greenwich Biosciences and EMD Serono. Dr. Gudesblatt has no relevant financial disclosures. Dr. Coyle has consulted or received speaker fees from Accordant, Alexion, Biogen, Bristol Myers Squibb, Celgene, GlaxoSmithKline, Horizon Therapeutics, Janssen, Mylan, Novartis, Sanofi Genzyme, TG Therapeutics, and Viela Bio. Dr. Coyle has received research funding from Actelion, Alkermes, Celgene, CorEvitas LLC, Genentech/Roche, MedDay, Novartis, and Sanofi Genzyme.