COVID-19 may discourage pediatric flu vaccination

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Parents who did not vaccinate their children against influenza last year were significantly less likely to do so this year than parents whose children were vaccinated last year, based on survey data from more than 2,000 parents with babies and young children.

Choreograph/Thinkstock

“Pediatric vaccination will be an important component to mitigating a dual influenza/COVID-19 epidemic,” Rebeccah L. Sokol, PhD, of Wayne State University, Detroit, and Anna H. Grummon, PhD, of Harvard School of Public Health, Boston, reported in Pediatrics.

Although the pandemic has increased acceptance of some healthy behaviors including handwashing and social distancing, the impact on influenza vaccination rates remains unknown, they said.

To assess parents’ current intentions for flu vaccination of young children this season, the researchers conducted an online survey of 2,164 parents or guardians of children aged between 6 months and 5 years in the United States. The 15-minute online survey was conducted in May 2020 and participants received gift cards. The primary outcome was the impact of the COVID-19 pandemic on parental intentions for having their child vaccinated against seasonal flu this year.

“We measured change categorically, with response options ranging from 1 (I became much less likely to get my child the flu shot next year) to 5 (I became much more likely to get my child the flu shot next year),” the researchers said.
 

Pandemic changes some parents’ plans

Overall, 60% of parents said that the ongoing pandemic had altered their flu vaccination intentions for their children. About 34% percent of parents whose children did not receive flu vaccine last year said they would not seek the vaccine this year because of the pandemic, compared with 25% of parents whose children received last year’s flu vaccine, a statistically significant difference (P < .001).

Approximately 21% of parents whose children received no flu vaccine last year said the pandemic made them more likely to seek vaccination for the 2020-2021 season, compared with 38% of parents whose children received last year’s flu vaccine.

“These results suggest that overall seasonal influenza vaccination rates may not increase simply because of an ongoing infectious disease pandemic. Instead, a significant predictor of future behavior remains past behavior,” Dr. Sokol and Dr. Grummon said.

The study findings were limited by several factors including the use of a convenience sample and the timing of the survey in May 2020, meaning that survey results might not be generalizable this fall as the pandemic persists, they noted. “Additionally, we assessed intentions to vaccinate; future research will clarify the COVID-19 pandemic’s influence on actual vaccination behaviors.”

The challenge of how to increase uptake of the influenza vaccine during the era of COVID-19 remains, and targeted efforts could include social norms messaging through social media, mass media, or health care providers to increase parents’ intentions to vaccinate, as well as vaccination reminders and presumptive announcements from health care providers that present vaccination as the default option, the researchers added.
 

Potential for ‘twindemic’ is real

The uptake of flu vaccination is especially important this year, Christopher J. Harrison, MD, director of the vaccine and treatment evaluation unit and professor of pediatrics at the University of Missouri–Kansas City, said in an interview.

“This year we are entering a flu season where the certainty of the timing as well as the potential severity of the season are not known. That said, social distancing and wearing masks – to the extent that enough people conform to COVID-19 precautions – could delay or even blunt the usual influenza season,” he noted.

Unfortunately, the Centers for Disease Control and Prevention and the Food and Drug Administration have had their credibility damaged by the challenges of creating a successful response on the fly to a uniquely multifaceted virus to which previous rules do not apply, Dr. Harrison said. In addition, public confidence was eroded when information about testing and reopening policies were released by non-CDC nonscientists and labeled “CDC recommended,” with no opportunity for the scientific community to correct inaccuracies.

“The current study reveals that public trust in influenza vaccine and indirectly in health authorities has been affected by the pandemic,” said Dr. Harrison. “Vaccine hesitancy has increased somewhat even among previous vaccine accepters. One wonders if promises of a quick COVID-19 vaccine increased mistrust of the FDA because of safety concerns, even among the most ardent provaccine population, and whether these concerns are bleeding over into influenza vaccine concerns.

“This only adds to the anxiety that families feel about visiting any medical facility for routine vaccines while the pandemic rages, and we now are in a fall SARS-CoV-2 resurgence,” he added.

Although the current study data are concerning, “there could still be a net gain of pediatric influenza vaccine uptake this season because the 34% less likely to immunize among previously nonimmunizing families would be counterbalanced by 21% of the same group being more likely to immunize their children [theoretical net loss of 13%],” Dr. Harrison explained. “But the pandemic seems to have motivated previously influenza-immunizing families, i.e. while 24% were less likely, 39% are more likely to immunize [theoretical net gain of 15%]. That said, we would still be way short of the number needed to get to herd immunity.”

Dr. Harrison said he found the findings somewhat surprising, but perhaps he should not have. “I had hoped for more acceptance rather than most people staying in their prior vaccine ‘opinion lanes,’ ending up with likely little overall net change in plans to immunize despite increased health awareness caused by a pandemic.”

However, “the U.S. population has been polarized on vaccines and particularly influenza vaccines for more than 50 years, so why would a pandemic make us less polarized, particularly when the pandemic itself has been a polarizing event?” he questioned.

The greatest barriers to flu vaccination for children this year include a lack of motivation among families to visit immunization sites, given the ongoing need for social distancing and masks, Dr. Harrison said.

“Another barrier is the waning public confidence in our medical/scientific national leaders and organizations,” he emphasized. “This makes it crucial that primary care providers step up and be extra strong vaccine advocates, despite the fact that pandemic economics and necessary safety processes have stressed providers and devastated practices. Indeed, in times of medical stress, no one gets more trust from families than their own personal provider.”

Ultimately, avenues for future research include asking diverse groups of families what they feel they need to hear to be more engaged in immunizing children against influenza. But for now, the current study findings identify that “the public is not uniformly responding to the pandemic’s influence on their likelihood of immunizing their children against influenza,” Dr. Harrison said.

“We now know the size of the problem and hopefully governments, public health organizations, pediatric advocates and clinical care givers can find ways to magnify the message that a pandemic year is not a year to avoid seasonal influenza vaccine unless one has a true contraindication,” Dr. Harrison said.

In addition, “one wonders if the poll were taken today – post the president’s COVID-19 illness – would the answers be different?” he noted.

Dr. Sokol’s work was supported in part by the Eunice Kennedy Shriver National Institute of Child Health and Human Development but otherwise had no financial conflicts to disclose. Dr. Harrison disclosed that his institution receives grant funding from Merck, Pfizer, and GlaxoSmithKline for pediatric noninfluenza vaccine studies on which he is a subinvestigator, and support from the CDC for pediatric respiratory and gastrointestinal virus surveillance studies on which he is an investigator.

SOURCE: Sokol RL, Grummon AH. Pediatrics. 2020 Sep 30. doi: 10.1542/peds.2020-022871.

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Parents who did not vaccinate their children against influenza last year were significantly less likely to do so this year than parents whose children were vaccinated last year, based on survey data from more than 2,000 parents with babies and young children.

Choreograph/Thinkstock

“Pediatric vaccination will be an important component to mitigating a dual influenza/COVID-19 epidemic,” Rebeccah L. Sokol, PhD, of Wayne State University, Detroit, and Anna H. Grummon, PhD, of Harvard School of Public Health, Boston, reported in Pediatrics.

Although the pandemic has increased acceptance of some healthy behaviors including handwashing and social distancing, the impact on influenza vaccination rates remains unknown, they said.

To assess parents’ current intentions for flu vaccination of young children this season, the researchers conducted an online survey of 2,164 parents or guardians of children aged between 6 months and 5 years in the United States. The 15-minute online survey was conducted in May 2020 and participants received gift cards. The primary outcome was the impact of the COVID-19 pandemic on parental intentions for having their child vaccinated against seasonal flu this year.

“We measured change categorically, with response options ranging from 1 (I became much less likely to get my child the flu shot next year) to 5 (I became much more likely to get my child the flu shot next year),” the researchers said.
 

Pandemic changes some parents’ plans

Overall, 60% of parents said that the ongoing pandemic had altered their flu vaccination intentions for their children. About 34% percent of parents whose children did not receive flu vaccine last year said they would not seek the vaccine this year because of the pandemic, compared with 25% of parents whose children received last year’s flu vaccine, a statistically significant difference (P < .001).

Approximately 21% of parents whose children received no flu vaccine last year said the pandemic made them more likely to seek vaccination for the 2020-2021 season, compared with 38% of parents whose children received last year’s flu vaccine.

“These results suggest that overall seasonal influenza vaccination rates may not increase simply because of an ongoing infectious disease pandemic. Instead, a significant predictor of future behavior remains past behavior,” Dr. Sokol and Dr. Grummon said.

The study findings were limited by several factors including the use of a convenience sample and the timing of the survey in May 2020, meaning that survey results might not be generalizable this fall as the pandemic persists, they noted. “Additionally, we assessed intentions to vaccinate; future research will clarify the COVID-19 pandemic’s influence on actual vaccination behaviors.”

The challenge of how to increase uptake of the influenza vaccine during the era of COVID-19 remains, and targeted efforts could include social norms messaging through social media, mass media, or health care providers to increase parents’ intentions to vaccinate, as well as vaccination reminders and presumptive announcements from health care providers that present vaccination as the default option, the researchers added.
 

Potential for ‘twindemic’ is real

The uptake of flu vaccination is especially important this year, Christopher J. Harrison, MD, director of the vaccine and treatment evaluation unit and professor of pediatrics at the University of Missouri–Kansas City, said in an interview.

“This year we are entering a flu season where the certainty of the timing as well as the potential severity of the season are not known. That said, social distancing and wearing masks – to the extent that enough people conform to COVID-19 precautions – could delay or even blunt the usual influenza season,” he noted.

Unfortunately, the Centers for Disease Control and Prevention and the Food and Drug Administration have had their credibility damaged by the challenges of creating a successful response on the fly to a uniquely multifaceted virus to which previous rules do not apply, Dr. Harrison said. In addition, public confidence was eroded when information about testing and reopening policies were released by non-CDC nonscientists and labeled “CDC recommended,” with no opportunity for the scientific community to correct inaccuracies.

“The current study reveals that public trust in influenza vaccine and indirectly in health authorities has been affected by the pandemic,” said Dr. Harrison. “Vaccine hesitancy has increased somewhat even among previous vaccine accepters. One wonders if promises of a quick COVID-19 vaccine increased mistrust of the FDA because of safety concerns, even among the most ardent provaccine population, and whether these concerns are bleeding over into influenza vaccine concerns.

“This only adds to the anxiety that families feel about visiting any medical facility for routine vaccines while the pandemic rages, and we now are in a fall SARS-CoV-2 resurgence,” he added.

Although the current study data are concerning, “there could still be a net gain of pediatric influenza vaccine uptake this season because the 34% less likely to immunize among previously nonimmunizing families would be counterbalanced by 21% of the same group being more likely to immunize their children [theoretical net loss of 13%],” Dr. Harrison explained. “But the pandemic seems to have motivated previously influenza-immunizing families, i.e. while 24% were less likely, 39% are more likely to immunize [theoretical net gain of 15%]. That said, we would still be way short of the number needed to get to herd immunity.”

Dr. Harrison said he found the findings somewhat surprising, but perhaps he should not have. “I had hoped for more acceptance rather than most people staying in their prior vaccine ‘opinion lanes,’ ending up with likely little overall net change in plans to immunize despite increased health awareness caused by a pandemic.”

However, “the U.S. population has been polarized on vaccines and particularly influenza vaccines for more than 50 years, so why would a pandemic make us less polarized, particularly when the pandemic itself has been a polarizing event?” he questioned.

The greatest barriers to flu vaccination for children this year include a lack of motivation among families to visit immunization sites, given the ongoing need for social distancing and masks, Dr. Harrison said.

“Another barrier is the waning public confidence in our medical/scientific national leaders and organizations,” he emphasized. “This makes it crucial that primary care providers step up and be extra strong vaccine advocates, despite the fact that pandemic economics and necessary safety processes have stressed providers and devastated practices. Indeed, in times of medical stress, no one gets more trust from families than their own personal provider.”

Ultimately, avenues for future research include asking diverse groups of families what they feel they need to hear to be more engaged in immunizing children against influenza. But for now, the current study findings identify that “the public is not uniformly responding to the pandemic’s influence on their likelihood of immunizing their children against influenza,” Dr. Harrison said.

“We now know the size of the problem and hopefully governments, public health organizations, pediatric advocates and clinical care givers can find ways to magnify the message that a pandemic year is not a year to avoid seasonal influenza vaccine unless one has a true contraindication,” Dr. Harrison said.

In addition, “one wonders if the poll were taken today – post the president’s COVID-19 illness – would the answers be different?” he noted.

Dr. Sokol’s work was supported in part by the Eunice Kennedy Shriver National Institute of Child Health and Human Development but otherwise had no financial conflicts to disclose. Dr. Harrison disclosed that his institution receives grant funding from Merck, Pfizer, and GlaxoSmithKline for pediatric noninfluenza vaccine studies on which he is a subinvestigator, and support from the CDC for pediatric respiratory and gastrointestinal virus surveillance studies on which he is an investigator.

SOURCE: Sokol RL, Grummon AH. Pediatrics. 2020 Sep 30. doi: 10.1542/peds.2020-022871.

Parents who did not vaccinate their children against influenza last year were significantly less likely to do so this year than parents whose children were vaccinated last year, based on survey data from more than 2,000 parents with babies and young children.

Choreograph/Thinkstock

“Pediatric vaccination will be an important component to mitigating a dual influenza/COVID-19 epidemic,” Rebeccah L. Sokol, PhD, of Wayne State University, Detroit, and Anna H. Grummon, PhD, of Harvard School of Public Health, Boston, reported in Pediatrics.

Although the pandemic has increased acceptance of some healthy behaviors including handwashing and social distancing, the impact on influenza vaccination rates remains unknown, they said.

To assess parents’ current intentions for flu vaccination of young children this season, the researchers conducted an online survey of 2,164 parents or guardians of children aged between 6 months and 5 years in the United States. The 15-minute online survey was conducted in May 2020 and participants received gift cards. The primary outcome was the impact of the COVID-19 pandemic on parental intentions for having their child vaccinated against seasonal flu this year.

“We measured change categorically, with response options ranging from 1 (I became much less likely to get my child the flu shot next year) to 5 (I became much more likely to get my child the flu shot next year),” the researchers said.
 

Pandemic changes some parents’ plans

Overall, 60% of parents said that the ongoing pandemic had altered their flu vaccination intentions for their children. About 34% percent of parents whose children did not receive flu vaccine last year said they would not seek the vaccine this year because of the pandemic, compared with 25% of parents whose children received last year’s flu vaccine, a statistically significant difference (P < .001).

Approximately 21% of parents whose children received no flu vaccine last year said the pandemic made them more likely to seek vaccination for the 2020-2021 season, compared with 38% of parents whose children received last year’s flu vaccine.

“These results suggest that overall seasonal influenza vaccination rates may not increase simply because of an ongoing infectious disease pandemic. Instead, a significant predictor of future behavior remains past behavior,” Dr. Sokol and Dr. Grummon said.

The study findings were limited by several factors including the use of a convenience sample and the timing of the survey in May 2020, meaning that survey results might not be generalizable this fall as the pandemic persists, they noted. “Additionally, we assessed intentions to vaccinate; future research will clarify the COVID-19 pandemic’s influence on actual vaccination behaviors.”

The challenge of how to increase uptake of the influenza vaccine during the era of COVID-19 remains, and targeted efforts could include social norms messaging through social media, mass media, or health care providers to increase parents’ intentions to vaccinate, as well as vaccination reminders and presumptive announcements from health care providers that present vaccination as the default option, the researchers added.
 

Potential for ‘twindemic’ is real

The uptake of flu vaccination is especially important this year, Christopher J. Harrison, MD, director of the vaccine and treatment evaluation unit and professor of pediatrics at the University of Missouri–Kansas City, said in an interview.

“This year we are entering a flu season where the certainty of the timing as well as the potential severity of the season are not known. That said, social distancing and wearing masks – to the extent that enough people conform to COVID-19 precautions – could delay or even blunt the usual influenza season,” he noted.

Unfortunately, the Centers for Disease Control and Prevention and the Food and Drug Administration have had their credibility damaged by the challenges of creating a successful response on the fly to a uniquely multifaceted virus to which previous rules do not apply, Dr. Harrison said. In addition, public confidence was eroded when information about testing and reopening policies were released by non-CDC nonscientists and labeled “CDC recommended,” with no opportunity for the scientific community to correct inaccuracies.

“The current study reveals that public trust in influenza vaccine and indirectly in health authorities has been affected by the pandemic,” said Dr. Harrison. “Vaccine hesitancy has increased somewhat even among previous vaccine accepters. One wonders if promises of a quick COVID-19 vaccine increased mistrust of the FDA because of safety concerns, even among the most ardent provaccine population, and whether these concerns are bleeding over into influenza vaccine concerns.

“This only adds to the anxiety that families feel about visiting any medical facility for routine vaccines while the pandemic rages, and we now are in a fall SARS-CoV-2 resurgence,” he added.

Although the current study data are concerning, “there could still be a net gain of pediatric influenza vaccine uptake this season because the 34% less likely to immunize among previously nonimmunizing families would be counterbalanced by 21% of the same group being more likely to immunize their children [theoretical net loss of 13%],” Dr. Harrison explained. “But the pandemic seems to have motivated previously influenza-immunizing families, i.e. while 24% were less likely, 39% are more likely to immunize [theoretical net gain of 15%]. That said, we would still be way short of the number needed to get to herd immunity.”

Dr. Harrison said he found the findings somewhat surprising, but perhaps he should not have. “I had hoped for more acceptance rather than most people staying in their prior vaccine ‘opinion lanes,’ ending up with likely little overall net change in plans to immunize despite increased health awareness caused by a pandemic.”

However, “the U.S. population has been polarized on vaccines and particularly influenza vaccines for more than 50 years, so why would a pandemic make us less polarized, particularly when the pandemic itself has been a polarizing event?” he questioned.

The greatest barriers to flu vaccination for children this year include a lack of motivation among families to visit immunization sites, given the ongoing need for social distancing and masks, Dr. Harrison said.

“Another barrier is the waning public confidence in our medical/scientific national leaders and organizations,” he emphasized. “This makes it crucial that primary care providers step up and be extra strong vaccine advocates, despite the fact that pandemic economics and necessary safety processes have stressed providers and devastated practices. Indeed, in times of medical stress, no one gets more trust from families than their own personal provider.”

Ultimately, avenues for future research include asking diverse groups of families what they feel they need to hear to be more engaged in immunizing children against influenza. But for now, the current study findings identify that “the public is not uniformly responding to the pandemic’s influence on their likelihood of immunizing their children against influenza,” Dr. Harrison said.

“We now know the size of the problem and hopefully governments, public health organizations, pediatric advocates and clinical care givers can find ways to magnify the message that a pandemic year is not a year to avoid seasonal influenza vaccine unless one has a true contraindication,” Dr. Harrison said.

In addition, “one wonders if the poll were taken today – post the president’s COVID-19 illness – would the answers be different?” he noted.

Dr. Sokol’s work was supported in part by the Eunice Kennedy Shriver National Institute of Child Health and Human Development but otherwise had no financial conflicts to disclose. Dr. Harrison disclosed that his institution receives grant funding from Merck, Pfizer, and GlaxoSmithKline for pediatric noninfluenza vaccine studies on which he is a subinvestigator, and support from the CDC for pediatric respiratory and gastrointestinal virus surveillance studies on which he is an investigator.

SOURCE: Sokol RL, Grummon AH. Pediatrics. 2020 Sep 30. doi: 10.1542/peds.2020-022871.

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Shingrix effective in older adults with preexisting immune-mediated disorders

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The adjuvanted recombinant zoster vaccine Shingrix appears to be effective in older adults with autoimmune diseases who are not receiving treatment regimens that suppress the immune system, according to a post hoc analysis of patients in two clinical trials.

jarun011/thinkstock

A two-dose regimen of Shingrix was effective in 90.5% of a subset of patients in two phase 3 clinical trials of adults who were aged at least 50 years, according to Alemnew F. Dagnew, MD, of GlaxoSmithKline and colleagues. The lowest rates of effectiveness with Shingrix, for patients aged between 70-79 years, was 84.4%, the researchers reported in Rheumatology.

The CDC recommends adults aged at least 50 years receive two doses of Shingrix to help prevent reoccurrence of herpes zoster, or Zostavax (zoster vaccine live) if adults are allergic to components of the Shingrix vaccine or have tested negative for varicella zoster virus immunity.

Dr. Dagnew and colleagues evaluated Shingrix in 983 patients who received two doses of Shingrix and 960 patients who received placebo from the ZOE-50 and ZOE-70 trials, where each dose was administered at least 2 months apart. The mean age of patients in both groups was 68.8 years in the Shingrix group and 69.4 years in the placebo group, and more than half of patients in both Shingrix (59.9%) and placebo groups (60.8%) were women. About 7% of the patients in two clinical trial had a pIMD.

At enrollment, the most common preexisting immune-mediated disorders (pIMDs) were psoriasis (215 patients taking Shingrix vs. 239 patients on placebo), spondyloarthropathy (109 patients taking Shingrix vs. 89 patients on placebo), rheumatoid arthritis (96 patients taking Shingrix vs. 94 patients on placebo), and celiac disease (41 patients taking Shingrix vs. 34 patients on placebo). Dr. Dagnew and colleagues examined the subgroup of patients with pIMDs for safety and vaccine efficacy, which was defined as not developing herpes zoster before the second dose.



Overall, the efficacy of Shingrix was 90.5% across all age groups (95% confidence interval, 73.5%-97.5%), with the group aged between 70-79 years having the lowest rate of effectiveness (95% CI, 30.8%-98.3%). The rate of severe adverse events was 14.6% in the Shingrix group and 11.7% in the placebo group between the first Shingrix dose and for up to 1 year after the second dose. The most common adverse events were infections and infestations as well as cardiac disorders. “Our data show a balance between study groups in the frequency and nature of SAEs, confirming the favorable safety profile of [Shingrix] in populations with pIMDs,” Dr. Dagnew and colleagues wrote.

The researchers acknowledged that the ZOE-50/70 studies were underpowered to detect the efficacy and safety of Shingrix in individuals with pIMDs but said that the large number of participants in the studies let them estimate efficacy and adverse events for this subgroup. They also noted there was no randomization of pIMDs at enrollment, even though pIMDs occurred at similar rates between Shingrix and placebo groups.

This study was funded by GlaxoSmithKline; the company helped with conducting and analyzing the study and also provided the costs associated with publishing it. Five authors reported being an employee of GlaxoSmithKline during the time the work was conducted, and four of the five own stock in the company. One author is now an employee of UCB. One author reported having served on the advisory boards for Merck Sharp & Dohme, GlaxoSmithKline, and Curevo.

SOURCE: Dagnew AF et al. Rheumatology. 2020 Sep 10. doi: 10.1093/rheumatology/keaa424.

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The adjuvanted recombinant zoster vaccine Shingrix appears to be effective in older adults with autoimmune diseases who are not receiving treatment regimens that suppress the immune system, according to a post hoc analysis of patients in two clinical trials.

jarun011/thinkstock

A two-dose regimen of Shingrix was effective in 90.5% of a subset of patients in two phase 3 clinical trials of adults who were aged at least 50 years, according to Alemnew F. Dagnew, MD, of GlaxoSmithKline and colleagues. The lowest rates of effectiveness with Shingrix, for patients aged between 70-79 years, was 84.4%, the researchers reported in Rheumatology.

The CDC recommends adults aged at least 50 years receive two doses of Shingrix to help prevent reoccurrence of herpes zoster, or Zostavax (zoster vaccine live) if adults are allergic to components of the Shingrix vaccine or have tested negative for varicella zoster virus immunity.

Dr. Dagnew and colleagues evaluated Shingrix in 983 patients who received two doses of Shingrix and 960 patients who received placebo from the ZOE-50 and ZOE-70 trials, where each dose was administered at least 2 months apart. The mean age of patients in both groups was 68.8 years in the Shingrix group and 69.4 years in the placebo group, and more than half of patients in both Shingrix (59.9%) and placebo groups (60.8%) were women. About 7% of the patients in two clinical trial had a pIMD.

At enrollment, the most common preexisting immune-mediated disorders (pIMDs) were psoriasis (215 patients taking Shingrix vs. 239 patients on placebo), spondyloarthropathy (109 patients taking Shingrix vs. 89 patients on placebo), rheumatoid arthritis (96 patients taking Shingrix vs. 94 patients on placebo), and celiac disease (41 patients taking Shingrix vs. 34 patients on placebo). Dr. Dagnew and colleagues examined the subgroup of patients with pIMDs for safety and vaccine efficacy, which was defined as not developing herpes zoster before the second dose.



Overall, the efficacy of Shingrix was 90.5% across all age groups (95% confidence interval, 73.5%-97.5%), with the group aged between 70-79 years having the lowest rate of effectiveness (95% CI, 30.8%-98.3%). The rate of severe adverse events was 14.6% in the Shingrix group and 11.7% in the placebo group between the first Shingrix dose and for up to 1 year after the second dose. The most common adverse events were infections and infestations as well as cardiac disorders. “Our data show a balance between study groups in the frequency and nature of SAEs, confirming the favorable safety profile of [Shingrix] in populations with pIMDs,” Dr. Dagnew and colleagues wrote.

The researchers acknowledged that the ZOE-50/70 studies were underpowered to detect the efficacy and safety of Shingrix in individuals with pIMDs but said that the large number of participants in the studies let them estimate efficacy and adverse events for this subgroup. They also noted there was no randomization of pIMDs at enrollment, even though pIMDs occurred at similar rates between Shingrix and placebo groups.

This study was funded by GlaxoSmithKline; the company helped with conducting and analyzing the study and also provided the costs associated with publishing it. Five authors reported being an employee of GlaxoSmithKline during the time the work was conducted, and four of the five own stock in the company. One author is now an employee of UCB. One author reported having served on the advisory boards for Merck Sharp & Dohme, GlaxoSmithKline, and Curevo.

SOURCE: Dagnew AF et al. Rheumatology. 2020 Sep 10. doi: 10.1093/rheumatology/keaa424.

The adjuvanted recombinant zoster vaccine Shingrix appears to be effective in older adults with autoimmune diseases who are not receiving treatment regimens that suppress the immune system, according to a post hoc analysis of patients in two clinical trials.

jarun011/thinkstock

A two-dose regimen of Shingrix was effective in 90.5% of a subset of patients in two phase 3 clinical trials of adults who were aged at least 50 years, according to Alemnew F. Dagnew, MD, of GlaxoSmithKline and colleagues. The lowest rates of effectiveness with Shingrix, for patients aged between 70-79 years, was 84.4%, the researchers reported in Rheumatology.

The CDC recommends adults aged at least 50 years receive two doses of Shingrix to help prevent reoccurrence of herpes zoster, or Zostavax (zoster vaccine live) if adults are allergic to components of the Shingrix vaccine or have tested negative for varicella zoster virus immunity.

Dr. Dagnew and colleagues evaluated Shingrix in 983 patients who received two doses of Shingrix and 960 patients who received placebo from the ZOE-50 and ZOE-70 trials, where each dose was administered at least 2 months apart. The mean age of patients in both groups was 68.8 years in the Shingrix group and 69.4 years in the placebo group, and more than half of patients in both Shingrix (59.9%) and placebo groups (60.8%) were women. About 7% of the patients in two clinical trial had a pIMD.

At enrollment, the most common preexisting immune-mediated disorders (pIMDs) were psoriasis (215 patients taking Shingrix vs. 239 patients on placebo), spondyloarthropathy (109 patients taking Shingrix vs. 89 patients on placebo), rheumatoid arthritis (96 patients taking Shingrix vs. 94 patients on placebo), and celiac disease (41 patients taking Shingrix vs. 34 patients on placebo). Dr. Dagnew and colleagues examined the subgroup of patients with pIMDs for safety and vaccine efficacy, which was defined as not developing herpes zoster before the second dose.



Overall, the efficacy of Shingrix was 90.5% across all age groups (95% confidence interval, 73.5%-97.5%), with the group aged between 70-79 years having the lowest rate of effectiveness (95% CI, 30.8%-98.3%). The rate of severe adverse events was 14.6% in the Shingrix group and 11.7% in the placebo group between the first Shingrix dose and for up to 1 year after the second dose. The most common adverse events were infections and infestations as well as cardiac disorders. “Our data show a balance between study groups in the frequency and nature of SAEs, confirming the favorable safety profile of [Shingrix] in populations with pIMDs,” Dr. Dagnew and colleagues wrote.

The researchers acknowledged that the ZOE-50/70 studies were underpowered to detect the efficacy and safety of Shingrix in individuals with pIMDs but said that the large number of participants in the studies let them estimate efficacy and adverse events for this subgroup. They also noted there was no randomization of pIMDs at enrollment, even though pIMDs occurred at similar rates between Shingrix and placebo groups.

This study was funded by GlaxoSmithKline; the company helped with conducting and analyzing the study and also provided the costs associated with publishing it. Five authors reported being an employee of GlaxoSmithKline during the time the work was conducted, and four of the five own stock in the company. One author is now an employee of UCB. One author reported having served on the advisory boards for Merck Sharp & Dohme, GlaxoSmithKline, and Curevo.

SOURCE: Dagnew AF et al. Rheumatology. 2020 Sep 10. doi: 10.1093/rheumatology/keaa424.

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HPV vaccine shown to substantially reduce cervical cancer risk

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Quadrivalent human papillomavirus (HPV) vaccination was associated with a substantial reduction in the incidence of cervical cancer in a Swedish review of more than 1 million girls and women vaccinated from 2006 to 2017.

It’s been shown that the vaccine (Gardasil) helps prevent genital warts and high-grade cervical lesions, but until now, data on the ability of the vaccine to prevent cervical cancer, although widely assumed, had been lacking.

“Our results extend [the] knowledge base by showing that quadrivalent HPV vaccination is also associated with a substantially reduced risk of invasive cervical cancer, which is the ultimate intent of HPV vaccination programs,” said investigators led by Jiayao Lei, PhD, a researcher in the department of medical epidemiology and biostatistics at the Karolinska Institute, Stockholm.

The study was published online Oct. 1 in the New England Journal of Medicine.

“This work provides evidence of actual cancer prevention,” commented Diane Harper, MD, an HPV expert and professor in the departments of family medicine and obstetrics & gynecology at the University of Michigan, Ann Arbor. She was the principal investigator on the original Gardasil trial.

This study “shows that the quadrivalent HPV vaccine provides prevention from the sexually transmitted HPV infection that actually reduces the incidence of cervical cancer in young women up to 30 years of age,” she said when approached for comment.

However, she also added a note of caution. These new results show “that vaccinated women still develop cervical cancer, but at a slower rate. This makes the connection between early-age vaccination and continued adult life screening incredibly important,” Dr. Harper said in an interview

Cervical cancer was diagnosed in 19 of the 527,871 women (0.004%) who had received at least one dose of the vaccine versus 538 among the 1,145,112 women (0.05%) who had not.

The cumulative incidence was 47 cases per 100,000 vaccinated women and 94 cases per 100,000 unvaccinated women. The cervical cancer incidence rate ratio for the comparison of vaccinated versus unvaccinated women was 0.37 (95% confidence interval, 0.21-0.57).

The risk reduction was even greater among women who had been vaccinated before the age of 17, with a cumulative incidence of 4 versus 54 cases per 100,000 for women vaccinated after age 17. The incidence rate ratio was 0.12 (95% CI, 0.00-0.34) for women who had been vaccinated before age 17 versus 0.47 (95% CI, 0.27-0.75) among those vaccinated from age 17 to 30 years.

Overall, “the risk of cervical cancer among participants who had initiated vaccination before the age of 17 years was 88% lower than among those who had never been vaccinated,” the investigators noted.

These results “support the recommendation to administer quadrivalent HPV vaccine before exposure to HPV infection to achieve the most substantial benefit,” the investigators wrote.
 

Details of the Swedish review

For their review, Dr. Lei and colleagues used several Swedish demographic and health registries to connect vaccination status to incident cervical cancers, using the personal identification numbers Sweden issues to residents.

Participants were followed starting either on their 10th birthday or on Jan. 1, 2006, whichever came later. They were followed until, among other things, diagnosis of invasive cervical cancer; their 31st birthday; or until Dec. 31, 2017, whichever came first.

The quadrivalent HPV vaccine, approved in Sweden in 2006, was used almost exclusively during the study period. Participants were considered vaccinated if they had received only one shot, but the investigators set out to analyze a relationship between the incidence of invasive cervical cancer and the number of shots given.

Among other things, the team controlled for age at follow-up, calendar year, county of residence, maternal disease history, and parental characteristics, including education and household income.

The investigators commented that it’s possible that HPV-vaccinated women could have been generally healthier than unvaccinated women and so would have been at lower risk for cervical cancer.

“Confounding by lifestyle and health factors in the women (such as smoking status, sexual activity, oral contraceptive use, and obesity) cannot be excluded; these factors are known to be associated with a risk of cervical cancer,” the investigators wrote.

HPV is also associated with other types of cancer, including anal and oropharyngeal cancers. But these cancers develop over a longer period than cervical cancer.

Dr. Harper noted that the “probability of HPV 16 cancer by time since infection peaks at 40 years after infection for anal cancers and nearly 50 years after infection for oropharyngeal cancers. This means that registries, such as in Sweden, for the next 40 years will record the evidence to say whether HPV vaccination lasts long enough to prevent [these] other HPV 16–associated cancers occurring at a much later time in life.”

The work was funded by the Swedish Foundation for Strategic Research, the Swedish Cancer Society, and the Swedish Research Council and by the China Scholarship Council. Dr. Lei and two other investigators reported HPV vaccine research funding from Merck, the maker of Gardasil. Harper disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

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Quadrivalent human papillomavirus (HPV) vaccination was associated with a substantial reduction in the incidence of cervical cancer in a Swedish review of more than 1 million girls and women vaccinated from 2006 to 2017.

It’s been shown that the vaccine (Gardasil) helps prevent genital warts and high-grade cervical lesions, but until now, data on the ability of the vaccine to prevent cervical cancer, although widely assumed, had been lacking.

“Our results extend [the] knowledge base by showing that quadrivalent HPV vaccination is also associated with a substantially reduced risk of invasive cervical cancer, which is the ultimate intent of HPV vaccination programs,” said investigators led by Jiayao Lei, PhD, a researcher in the department of medical epidemiology and biostatistics at the Karolinska Institute, Stockholm.

The study was published online Oct. 1 in the New England Journal of Medicine.

“This work provides evidence of actual cancer prevention,” commented Diane Harper, MD, an HPV expert and professor in the departments of family medicine and obstetrics & gynecology at the University of Michigan, Ann Arbor. She was the principal investigator on the original Gardasil trial.

This study “shows that the quadrivalent HPV vaccine provides prevention from the sexually transmitted HPV infection that actually reduces the incidence of cervical cancer in young women up to 30 years of age,” she said when approached for comment.

However, she also added a note of caution. These new results show “that vaccinated women still develop cervical cancer, but at a slower rate. This makes the connection between early-age vaccination and continued adult life screening incredibly important,” Dr. Harper said in an interview

Cervical cancer was diagnosed in 19 of the 527,871 women (0.004%) who had received at least one dose of the vaccine versus 538 among the 1,145,112 women (0.05%) who had not.

The cumulative incidence was 47 cases per 100,000 vaccinated women and 94 cases per 100,000 unvaccinated women. The cervical cancer incidence rate ratio for the comparison of vaccinated versus unvaccinated women was 0.37 (95% confidence interval, 0.21-0.57).

The risk reduction was even greater among women who had been vaccinated before the age of 17, with a cumulative incidence of 4 versus 54 cases per 100,000 for women vaccinated after age 17. The incidence rate ratio was 0.12 (95% CI, 0.00-0.34) for women who had been vaccinated before age 17 versus 0.47 (95% CI, 0.27-0.75) among those vaccinated from age 17 to 30 years.

Overall, “the risk of cervical cancer among participants who had initiated vaccination before the age of 17 years was 88% lower than among those who had never been vaccinated,” the investigators noted.

These results “support the recommendation to administer quadrivalent HPV vaccine before exposure to HPV infection to achieve the most substantial benefit,” the investigators wrote.
 

Details of the Swedish review

For their review, Dr. Lei and colleagues used several Swedish demographic and health registries to connect vaccination status to incident cervical cancers, using the personal identification numbers Sweden issues to residents.

Participants were followed starting either on their 10th birthday or on Jan. 1, 2006, whichever came later. They were followed until, among other things, diagnosis of invasive cervical cancer; their 31st birthday; or until Dec. 31, 2017, whichever came first.

The quadrivalent HPV vaccine, approved in Sweden in 2006, was used almost exclusively during the study period. Participants were considered vaccinated if they had received only one shot, but the investigators set out to analyze a relationship between the incidence of invasive cervical cancer and the number of shots given.

Among other things, the team controlled for age at follow-up, calendar year, county of residence, maternal disease history, and parental characteristics, including education and household income.

The investigators commented that it’s possible that HPV-vaccinated women could have been generally healthier than unvaccinated women and so would have been at lower risk for cervical cancer.

“Confounding by lifestyle and health factors in the women (such as smoking status, sexual activity, oral contraceptive use, and obesity) cannot be excluded; these factors are known to be associated with a risk of cervical cancer,” the investigators wrote.

HPV is also associated with other types of cancer, including anal and oropharyngeal cancers. But these cancers develop over a longer period than cervical cancer.

Dr. Harper noted that the “probability of HPV 16 cancer by time since infection peaks at 40 years after infection for anal cancers and nearly 50 years after infection for oropharyngeal cancers. This means that registries, such as in Sweden, for the next 40 years will record the evidence to say whether HPV vaccination lasts long enough to prevent [these] other HPV 16–associated cancers occurring at a much later time in life.”

The work was funded by the Swedish Foundation for Strategic Research, the Swedish Cancer Society, and the Swedish Research Council and by the China Scholarship Council. Dr. Lei and two other investigators reported HPV vaccine research funding from Merck, the maker of Gardasil. Harper disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

 

Quadrivalent human papillomavirus (HPV) vaccination was associated with a substantial reduction in the incidence of cervical cancer in a Swedish review of more than 1 million girls and women vaccinated from 2006 to 2017.

It’s been shown that the vaccine (Gardasil) helps prevent genital warts and high-grade cervical lesions, but until now, data on the ability of the vaccine to prevent cervical cancer, although widely assumed, had been lacking.

“Our results extend [the] knowledge base by showing that quadrivalent HPV vaccination is also associated with a substantially reduced risk of invasive cervical cancer, which is the ultimate intent of HPV vaccination programs,” said investigators led by Jiayao Lei, PhD, a researcher in the department of medical epidemiology and biostatistics at the Karolinska Institute, Stockholm.

The study was published online Oct. 1 in the New England Journal of Medicine.

“This work provides evidence of actual cancer prevention,” commented Diane Harper, MD, an HPV expert and professor in the departments of family medicine and obstetrics & gynecology at the University of Michigan, Ann Arbor. She was the principal investigator on the original Gardasil trial.

This study “shows that the quadrivalent HPV vaccine provides prevention from the sexually transmitted HPV infection that actually reduces the incidence of cervical cancer in young women up to 30 years of age,” she said when approached for comment.

However, she also added a note of caution. These new results show “that vaccinated women still develop cervical cancer, but at a slower rate. This makes the connection between early-age vaccination and continued adult life screening incredibly important,” Dr. Harper said in an interview

Cervical cancer was diagnosed in 19 of the 527,871 women (0.004%) who had received at least one dose of the vaccine versus 538 among the 1,145,112 women (0.05%) who had not.

The cumulative incidence was 47 cases per 100,000 vaccinated women and 94 cases per 100,000 unvaccinated women. The cervical cancer incidence rate ratio for the comparison of vaccinated versus unvaccinated women was 0.37 (95% confidence interval, 0.21-0.57).

The risk reduction was even greater among women who had been vaccinated before the age of 17, with a cumulative incidence of 4 versus 54 cases per 100,000 for women vaccinated after age 17. The incidence rate ratio was 0.12 (95% CI, 0.00-0.34) for women who had been vaccinated before age 17 versus 0.47 (95% CI, 0.27-0.75) among those vaccinated from age 17 to 30 years.

Overall, “the risk of cervical cancer among participants who had initiated vaccination before the age of 17 years was 88% lower than among those who had never been vaccinated,” the investigators noted.

These results “support the recommendation to administer quadrivalent HPV vaccine before exposure to HPV infection to achieve the most substantial benefit,” the investigators wrote.
 

Details of the Swedish review

For their review, Dr. Lei and colleagues used several Swedish demographic and health registries to connect vaccination status to incident cervical cancers, using the personal identification numbers Sweden issues to residents.

Participants were followed starting either on their 10th birthday or on Jan. 1, 2006, whichever came later. They were followed until, among other things, diagnosis of invasive cervical cancer; their 31st birthday; or until Dec. 31, 2017, whichever came first.

The quadrivalent HPV vaccine, approved in Sweden in 2006, was used almost exclusively during the study period. Participants were considered vaccinated if they had received only one shot, but the investigators set out to analyze a relationship between the incidence of invasive cervical cancer and the number of shots given.

Among other things, the team controlled for age at follow-up, calendar year, county of residence, maternal disease history, and parental characteristics, including education and household income.

The investigators commented that it’s possible that HPV-vaccinated women could have been generally healthier than unvaccinated women and so would have been at lower risk for cervical cancer.

“Confounding by lifestyle and health factors in the women (such as smoking status, sexual activity, oral contraceptive use, and obesity) cannot be excluded; these factors are known to be associated with a risk of cervical cancer,” the investigators wrote.

HPV is also associated with other types of cancer, including anal and oropharyngeal cancers. But these cancers develop over a longer period than cervical cancer.

Dr. Harper noted that the “probability of HPV 16 cancer by time since infection peaks at 40 years after infection for anal cancers and nearly 50 years after infection for oropharyngeal cancers. This means that registries, such as in Sweden, for the next 40 years will record the evidence to say whether HPV vaccination lasts long enough to prevent [these] other HPV 16–associated cancers occurring at a much later time in life.”

The work was funded by the Swedish Foundation for Strategic Research, the Swedish Cancer Society, and the Swedish Research Council and by the China Scholarship Council. Dr. Lei and two other investigators reported HPV vaccine research funding from Merck, the maker of Gardasil. Harper disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

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J&J’s one-shot COVID-19 vaccine advances to phase 3 testing

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Johnson & Johnson (J&J) on Wednesday said it advanced into phase 3 testing of its COVID-19 vaccine candidate, which uses the same technology as an Ebola vaccine already approved by European regulators.

The National Institute of Allergy and Infectious Diseases, which is aiding Johnson & Johnson with development, described this in a news release as the fourth phase 3 clinical trial of evaluating an investigational vaccine for coronavirus disease.

This NIAID tally tracks products likely to be presented soon for Food and Drug Administration approval. (The World Health Organization’s COVID vaccine tracker lists nine candidates as having reached this stage, including products developed in Russia and China.)

As many as 60,000 volunteers will be enrolled in the trial, with about 215 clinical research sites expected to participate, NIAID said. The vaccine will be tested in the United States and abroad.

The start of this test, known as the ENSEMBLE trial, follows positive results from a Phase 1/2a clinical study, which involved a single vaccination. The results of this study have been submitted to medRxiv and are set to be published online imminently.

New Brunswick, N.J–based J&J said it intends to offer the vaccine on “a not-for-profit basis for emergency pandemic use.” If testing proceeds well, J&J might seek an emergency use clearance for the vaccine, which could possibly allow the first batches to be made available in early 2021.

J&J’s vaccine is unusual in that it will be tested based on a single dose, while other advanced candidates have been tested in two-dose regimens.

J&J on Wednesday also released the study protocol for its phase 3 test. The developers of the other late-stage COVID vaccine candidates also have done this, as reported by Medscape Medical News. Because of the great interest in the COVID vaccine, the American Medical Association had last month asked the FDA to keep physicians informed of their COVID-19 vaccine review process.
 

Trials and tribulations

One of these experimental COVID vaccines already has had a setback in phase 3 testing, which is a fairly routine occurrence in drug development. But with a pandemic still causing deaths and disrupting lives around the world, there has been intense interest in each step of the effort to develop a COVID vaccine.

AstraZeneca PLC earlier this month announced a temporary cessation of all their coronavirus vaccine trials to investigate an “unexplained illness” that arose in a participant, as reported by Medscape Medical News.

On September 12, AstraZeneca announced that clinical trials for the AZD1222, which it developed with Oxford University, had resumed in the United Kingdom. On Wednesday, CNBC said Health and Human Services Secretary Alex Azar told the news station that AstraZeneca’s late-stage coronavirus vaccine trial in the United States remains on hold until safety concerns are resolved, a critical issue with all the fast-track COVID vaccines now being tested.

“Look at the AstraZeneca program, phase 3 clinical trial, a lot of hope. [A] single serious adverse event report in the United Kingdom, global shutdown, and [a] hold of the clinical trials,” Mr. Azar told CNBC.

The New York Times has reported on concerns stemming from serious neurologic illnesses in two participants, both women, who received AstraZeneca’s experimental vaccine in Britain.

The Senate Health, Education, Labor and Pensions Committee on Wednesday separately held a hearing with the leaders of the FDA and the Centers of Disease Control and Prevention, allowing an airing of lawmakers’ concerns about a potential rush to approve a COVID vaccine.
 

Details of J&J trial

The J&J trial is designed primarily to determine if the investigational vaccine can prevent moderate to severe COVID-19 after a single dose. It also is designed to examine whether the vaccine can prevent COVID-19 requiring medical intervention and if the vaccine can prevent milder cases of COVID-19 and asymptomatic SARS-CoV-2 infection, NIAID said.

Principal investigators for the phase 3 trial of the J & J vaccine are Paul A. Goepfert, MD, director of the Alabama Vaccine Research Clinic at the University of Alabama in Birmingham; Beatriz Grinsztejn, MD, PhD, director of the Laboratory of Clinical Research on HIV/AIDS at the Evandro Chagas National Institute of Infectious Diseases-Oswaldo Cruz Foundation in Rio de Janeiro, Brazil; and Glenda E. Gray, MBBCh, president and chief executive officer of the South African Medical Research Council and coprincipal investigator of the HIV Vaccine Trials Network.

This article first appeared on Medscape.com.

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Johnson & Johnson (J&J) on Wednesday said it advanced into phase 3 testing of its COVID-19 vaccine candidate, which uses the same technology as an Ebola vaccine already approved by European regulators.

The National Institute of Allergy and Infectious Diseases, which is aiding Johnson & Johnson with development, described this in a news release as the fourth phase 3 clinical trial of evaluating an investigational vaccine for coronavirus disease.

This NIAID tally tracks products likely to be presented soon for Food and Drug Administration approval. (The World Health Organization’s COVID vaccine tracker lists nine candidates as having reached this stage, including products developed in Russia and China.)

As many as 60,000 volunteers will be enrolled in the trial, with about 215 clinical research sites expected to participate, NIAID said. The vaccine will be tested in the United States and abroad.

The start of this test, known as the ENSEMBLE trial, follows positive results from a Phase 1/2a clinical study, which involved a single vaccination. The results of this study have been submitted to medRxiv and are set to be published online imminently.

New Brunswick, N.J–based J&J said it intends to offer the vaccine on “a not-for-profit basis for emergency pandemic use.” If testing proceeds well, J&J might seek an emergency use clearance for the vaccine, which could possibly allow the first batches to be made available in early 2021.

J&J’s vaccine is unusual in that it will be tested based on a single dose, while other advanced candidates have been tested in two-dose regimens.

J&J on Wednesday also released the study protocol for its phase 3 test. The developers of the other late-stage COVID vaccine candidates also have done this, as reported by Medscape Medical News. Because of the great interest in the COVID vaccine, the American Medical Association had last month asked the FDA to keep physicians informed of their COVID-19 vaccine review process.
 

Trials and tribulations

One of these experimental COVID vaccines already has had a setback in phase 3 testing, which is a fairly routine occurrence in drug development. But with a pandemic still causing deaths and disrupting lives around the world, there has been intense interest in each step of the effort to develop a COVID vaccine.

AstraZeneca PLC earlier this month announced a temporary cessation of all their coronavirus vaccine trials to investigate an “unexplained illness” that arose in a participant, as reported by Medscape Medical News.

On September 12, AstraZeneca announced that clinical trials for the AZD1222, which it developed with Oxford University, had resumed in the United Kingdom. On Wednesday, CNBC said Health and Human Services Secretary Alex Azar told the news station that AstraZeneca’s late-stage coronavirus vaccine trial in the United States remains on hold until safety concerns are resolved, a critical issue with all the fast-track COVID vaccines now being tested.

“Look at the AstraZeneca program, phase 3 clinical trial, a lot of hope. [A] single serious adverse event report in the United Kingdom, global shutdown, and [a] hold of the clinical trials,” Mr. Azar told CNBC.

The New York Times has reported on concerns stemming from serious neurologic illnesses in two participants, both women, who received AstraZeneca’s experimental vaccine in Britain.

The Senate Health, Education, Labor and Pensions Committee on Wednesday separately held a hearing with the leaders of the FDA and the Centers of Disease Control and Prevention, allowing an airing of lawmakers’ concerns about a potential rush to approve a COVID vaccine.
 

Details of J&J trial

The J&J trial is designed primarily to determine if the investigational vaccine can prevent moderate to severe COVID-19 after a single dose. It also is designed to examine whether the vaccine can prevent COVID-19 requiring medical intervention and if the vaccine can prevent milder cases of COVID-19 and asymptomatic SARS-CoV-2 infection, NIAID said.

Principal investigators for the phase 3 trial of the J & J vaccine are Paul A. Goepfert, MD, director of the Alabama Vaccine Research Clinic at the University of Alabama in Birmingham; Beatriz Grinsztejn, MD, PhD, director of the Laboratory of Clinical Research on HIV/AIDS at the Evandro Chagas National Institute of Infectious Diseases-Oswaldo Cruz Foundation in Rio de Janeiro, Brazil; and Glenda E. Gray, MBBCh, president and chief executive officer of the South African Medical Research Council and coprincipal investigator of the HIV Vaccine Trials Network.

This article first appeared on Medscape.com.

Johnson & Johnson (J&J) on Wednesday said it advanced into phase 3 testing of its COVID-19 vaccine candidate, which uses the same technology as an Ebola vaccine already approved by European regulators.

The National Institute of Allergy and Infectious Diseases, which is aiding Johnson & Johnson with development, described this in a news release as the fourth phase 3 clinical trial of evaluating an investigational vaccine for coronavirus disease.

This NIAID tally tracks products likely to be presented soon for Food and Drug Administration approval. (The World Health Organization’s COVID vaccine tracker lists nine candidates as having reached this stage, including products developed in Russia and China.)

As many as 60,000 volunteers will be enrolled in the trial, with about 215 clinical research sites expected to participate, NIAID said. The vaccine will be tested in the United States and abroad.

The start of this test, known as the ENSEMBLE trial, follows positive results from a Phase 1/2a clinical study, which involved a single vaccination. The results of this study have been submitted to medRxiv and are set to be published online imminently.

New Brunswick, N.J–based J&J said it intends to offer the vaccine on “a not-for-profit basis for emergency pandemic use.” If testing proceeds well, J&J might seek an emergency use clearance for the vaccine, which could possibly allow the first batches to be made available in early 2021.

J&J’s vaccine is unusual in that it will be tested based on a single dose, while other advanced candidates have been tested in two-dose regimens.

J&J on Wednesday also released the study protocol for its phase 3 test. The developers of the other late-stage COVID vaccine candidates also have done this, as reported by Medscape Medical News. Because of the great interest in the COVID vaccine, the American Medical Association had last month asked the FDA to keep physicians informed of their COVID-19 vaccine review process.
 

Trials and tribulations

One of these experimental COVID vaccines already has had a setback in phase 3 testing, which is a fairly routine occurrence in drug development. But with a pandemic still causing deaths and disrupting lives around the world, there has been intense interest in each step of the effort to develop a COVID vaccine.

AstraZeneca PLC earlier this month announced a temporary cessation of all their coronavirus vaccine trials to investigate an “unexplained illness” that arose in a participant, as reported by Medscape Medical News.

On September 12, AstraZeneca announced that clinical trials for the AZD1222, which it developed with Oxford University, had resumed in the United Kingdom. On Wednesday, CNBC said Health and Human Services Secretary Alex Azar told the news station that AstraZeneca’s late-stage coronavirus vaccine trial in the United States remains on hold until safety concerns are resolved, a critical issue with all the fast-track COVID vaccines now being tested.

“Look at the AstraZeneca program, phase 3 clinical trial, a lot of hope. [A] single serious adverse event report in the United Kingdom, global shutdown, and [a] hold of the clinical trials,” Mr. Azar told CNBC.

The New York Times has reported on concerns stemming from serious neurologic illnesses in two participants, both women, who received AstraZeneca’s experimental vaccine in Britain.

The Senate Health, Education, Labor and Pensions Committee on Wednesday separately held a hearing with the leaders of the FDA and the Centers of Disease Control and Prevention, allowing an airing of lawmakers’ concerns about a potential rush to approve a COVID vaccine.
 

Details of J&J trial

The J&J trial is designed primarily to determine if the investigational vaccine can prevent moderate to severe COVID-19 after a single dose. It also is designed to examine whether the vaccine can prevent COVID-19 requiring medical intervention and if the vaccine can prevent milder cases of COVID-19 and asymptomatic SARS-CoV-2 infection, NIAID said.

Principal investigators for the phase 3 trial of the J & J vaccine are Paul A. Goepfert, MD, director of the Alabama Vaccine Research Clinic at the University of Alabama in Birmingham; Beatriz Grinsztejn, MD, PhD, director of the Laboratory of Clinical Research on HIV/AIDS at the Evandro Chagas National Institute of Infectious Diseases-Oswaldo Cruz Foundation in Rio de Janeiro, Brazil; and Glenda E. Gray, MBBCh, president and chief executive officer of the South African Medical Research Council and coprincipal investigator of the HIV Vaccine Trials Network.

This article first appeared on Medscape.com.

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Three major COVID vaccine developers release detailed trial protocols

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The companies behind three major COVID-19 vaccines in development released the protocols of their trials, outlining their expectations for participant enrollment, benchmarks for vaccine efficacy, and more details about the makeup of each product.

Typically, manufacturers guard the specifics of preclinical vaccine trials. This rare move follows calls for greater transparency. For example, the American Medical Association wrote a letter in late August asking the Food and Drug Administration to keep physicians informed of their COVID-19 vaccine review process.

On September 17, ModernaTx released the phase 3 trial protocol for its mRNA-1273 SARS-CoV-2 vaccine. In short order, on September 19, Pfizer/BioNTech shared their phase 1/2/3 trial vaccine protocol. AstraZeneca, which is developing a vaccine along with Oxford University, also released its protocol.

The AstraZeneca vaccine trial made headlines recently for having to be temporarily halted because of unexpected illnesses that arose in two participants, according to the New York Times and other sources.

“I applaud the release of the clinical trial protocols by the companies. The public trust in any COVID-19 vaccine is paramount, especially given the fast timeline and perceived political pressures of these candidates,” Robert Kruse, MD, PhD, told Medscape Medical News when asked to comment.
 

AstraZeneca takes a shot at transparency

The three primary objectives of the AstraZeneca AZD1222 trial outlined in the 110-page protocol include estimating the efficacy, safety, tolerability, and reactogenicity associated with two intramuscular doses of the vaccine in comparison with placebo in adults.

The projected enrollment is 30,000 participants, and the estimated primary completion date is Dec. 2, 2020, according to information on clinicaltrials.gov.

“Given the unprecedented global impact of the coronavirus pandemic and the need for public information, AstraZeneca has published the detailed protocol and design of our AZD1222 clinical trial,” the company said in a statement. “As with most clinical development, protocols are not typically shared publicly due to the importance of maintaining confidentiality and integrity of trials.

“AstraZeneca continues to work with industry peers to ensure a consistent approach to sharing timely clinical trial information,” the company added.
 

Moderna methodology

The ModernaTX 135-page protocol outlines the primary trial objectives of evaluating efficacy, safety, and reactogenicity of two injections of the vaccine administered 28 days apart. Researchers also plan to randomly assign 30,000 adults to receive either vaccine or placebo. The estimated primary completion date is Oct. 27, 2022.

A statement that was requested from ModernaTX was not received by press time.
 

Pfizer protocol

In the Pfizer/BioNTech vaccine trial, researchers plan to evaluate different doses in different age groups in a multistep protocol. The trial features 20 primary safety objectives, which include reporting adverse events and serious adverse events, including any local or systemic events.

Efficacy endpoints are secondary objectives. The estimated enrollment is 29,481 adults; the estimated primary completion date is April 19, 2021.

“Pfizer and BioNTech recognize that the COVID-19 pandemic is a unique circumstance, and the need for transparency is clear,” Pfizer spokesperson Sharon Castillo told Medscape Medical News. By making the full protocol available, “we believe this will reinforce our long-standing commitment to scientific and regulatory rigor that benefits patients,” she said.

“Based on current infection rates, Pfizer and BioNTech continue to expect that a conclusive read-out on efficacy is likely by the end of October. Neither Pfizer nor the FDA can move faster than the data we are generating through our clinical trial,” Castillo said.

If clinical work and regulatory approval or authorization proceed as planned, Pfizer and BioNTech expect to supply up to 100 million doses worldwide by the end of 2020 and approximately 1.3 billion doses worldwide by the end of 2021.

Pfizer is not willing to sacrifice safety and efficacy in the name of expediency, Castillo said. “We will not cut corners in this pursuit. Patient safety is our highest priority, and Pfizer will not bring a vaccine to market without adequate evidence of safety and efficacy.”
 

A positive move

“COVID-19 vaccines will only be useful if many people are willing to receive them,” said Kruse, a postgraduate year 3 resident in the Department of Pathology at Johns Hopkins Medicine in Baltimore, Maryland.

“By giving the general public along with other scientists and physicians the opportunity to critique the protocols, everyone can understand what the metrics would be for an early look at efficacy,” Kruse said. He noted that information could help inform a potential FDA emergency use authorization.

Kruse has disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

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The companies behind three major COVID-19 vaccines in development released the protocols of their trials, outlining their expectations for participant enrollment, benchmarks for vaccine efficacy, and more details about the makeup of each product.

Typically, manufacturers guard the specifics of preclinical vaccine trials. This rare move follows calls for greater transparency. For example, the American Medical Association wrote a letter in late August asking the Food and Drug Administration to keep physicians informed of their COVID-19 vaccine review process.

On September 17, ModernaTx released the phase 3 trial protocol for its mRNA-1273 SARS-CoV-2 vaccine. In short order, on September 19, Pfizer/BioNTech shared their phase 1/2/3 trial vaccine protocol. AstraZeneca, which is developing a vaccine along with Oxford University, also released its protocol.

The AstraZeneca vaccine trial made headlines recently for having to be temporarily halted because of unexpected illnesses that arose in two participants, according to the New York Times and other sources.

“I applaud the release of the clinical trial protocols by the companies. The public trust in any COVID-19 vaccine is paramount, especially given the fast timeline and perceived political pressures of these candidates,” Robert Kruse, MD, PhD, told Medscape Medical News when asked to comment.
 

AstraZeneca takes a shot at transparency

The three primary objectives of the AstraZeneca AZD1222 trial outlined in the 110-page protocol include estimating the efficacy, safety, tolerability, and reactogenicity associated with two intramuscular doses of the vaccine in comparison with placebo in adults.

The projected enrollment is 30,000 participants, and the estimated primary completion date is Dec. 2, 2020, according to information on clinicaltrials.gov.

“Given the unprecedented global impact of the coronavirus pandemic and the need for public information, AstraZeneca has published the detailed protocol and design of our AZD1222 clinical trial,” the company said in a statement. “As with most clinical development, protocols are not typically shared publicly due to the importance of maintaining confidentiality and integrity of trials.

“AstraZeneca continues to work with industry peers to ensure a consistent approach to sharing timely clinical trial information,” the company added.
 

Moderna methodology

The ModernaTX 135-page protocol outlines the primary trial objectives of evaluating efficacy, safety, and reactogenicity of two injections of the vaccine administered 28 days apart. Researchers also plan to randomly assign 30,000 adults to receive either vaccine or placebo. The estimated primary completion date is Oct. 27, 2022.

A statement that was requested from ModernaTX was not received by press time.
 

Pfizer protocol

In the Pfizer/BioNTech vaccine trial, researchers plan to evaluate different doses in different age groups in a multistep protocol. The trial features 20 primary safety objectives, which include reporting adverse events and serious adverse events, including any local or systemic events.

Efficacy endpoints are secondary objectives. The estimated enrollment is 29,481 adults; the estimated primary completion date is April 19, 2021.

“Pfizer and BioNTech recognize that the COVID-19 pandemic is a unique circumstance, and the need for transparency is clear,” Pfizer spokesperson Sharon Castillo told Medscape Medical News. By making the full protocol available, “we believe this will reinforce our long-standing commitment to scientific and regulatory rigor that benefits patients,” she said.

“Based on current infection rates, Pfizer and BioNTech continue to expect that a conclusive read-out on efficacy is likely by the end of October. Neither Pfizer nor the FDA can move faster than the data we are generating through our clinical trial,” Castillo said.

If clinical work and regulatory approval or authorization proceed as planned, Pfizer and BioNTech expect to supply up to 100 million doses worldwide by the end of 2020 and approximately 1.3 billion doses worldwide by the end of 2021.

Pfizer is not willing to sacrifice safety and efficacy in the name of expediency, Castillo said. “We will not cut corners in this pursuit. Patient safety is our highest priority, and Pfizer will not bring a vaccine to market without adequate evidence of safety and efficacy.”
 

A positive move

“COVID-19 vaccines will only be useful if many people are willing to receive them,” said Kruse, a postgraduate year 3 resident in the Department of Pathology at Johns Hopkins Medicine in Baltimore, Maryland.

“By giving the general public along with other scientists and physicians the opportunity to critique the protocols, everyone can understand what the metrics would be for an early look at efficacy,” Kruse said. He noted that information could help inform a potential FDA emergency use authorization.

Kruse has disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

 

The companies behind three major COVID-19 vaccines in development released the protocols of their trials, outlining their expectations for participant enrollment, benchmarks for vaccine efficacy, and more details about the makeup of each product.

Typically, manufacturers guard the specifics of preclinical vaccine trials. This rare move follows calls for greater transparency. For example, the American Medical Association wrote a letter in late August asking the Food and Drug Administration to keep physicians informed of their COVID-19 vaccine review process.

On September 17, ModernaTx released the phase 3 trial protocol for its mRNA-1273 SARS-CoV-2 vaccine. In short order, on September 19, Pfizer/BioNTech shared their phase 1/2/3 trial vaccine protocol. AstraZeneca, which is developing a vaccine along with Oxford University, also released its protocol.

The AstraZeneca vaccine trial made headlines recently for having to be temporarily halted because of unexpected illnesses that arose in two participants, according to the New York Times and other sources.

“I applaud the release of the clinical trial protocols by the companies. The public trust in any COVID-19 vaccine is paramount, especially given the fast timeline and perceived political pressures of these candidates,” Robert Kruse, MD, PhD, told Medscape Medical News when asked to comment.
 

AstraZeneca takes a shot at transparency

The three primary objectives of the AstraZeneca AZD1222 trial outlined in the 110-page protocol include estimating the efficacy, safety, tolerability, and reactogenicity associated with two intramuscular doses of the vaccine in comparison with placebo in adults.

The projected enrollment is 30,000 participants, and the estimated primary completion date is Dec. 2, 2020, according to information on clinicaltrials.gov.

“Given the unprecedented global impact of the coronavirus pandemic and the need for public information, AstraZeneca has published the detailed protocol and design of our AZD1222 clinical trial,” the company said in a statement. “As with most clinical development, protocols are not typically shared publicly due to the importance of maintaining confidentiality and integrity of trials.

“AstraZeneca continues to work with industry peers to ensure a consistent approach to sharing timely clinical trial information,” the company added.
 

Moderna methodology

The ModernaTX 135-page protocol outlines the primary trial objectives of evaluating efficacy, safety, and reactogenicity of two injections of the vaccine administered 28 days apart. Researchers also plan to randomly assign 30,000 adults to receive either vaccine or placebo. The estimated primary completion date is Oct. 27, 2022.

A statement that was requested from ModernaTX was not received by press time.
 

Pfizer protocol

In the Pfizer/BioNTech vaccine trial, researchers plan to evaluate different doses in different age groups in a multistep protocol. The trial features 20 primary safety objectives, which include reporting adverse events and serious adverse events, including any local or systemic events.

Efficacy endpoints are secondary objectives. The estimated enrollment is 29,481 adults; the estimated primary completion date is April 19, 2021.

“Pfizer and BioNTech recognize that the COVID-19 pandemic is a unique circumstance, and the need for transparency is clear,” Pfizer spokesperson Sharon Castillo told Medscape Medical News. By making the full protocol available, “we believe this will reinforce our long-standing commitment to scientific and regulatory rigor that benefits patients,” she said.

“Based on current infection rates, Pfizer and BioNTech continue to expect that a conclusive read-out on efficacy is likely by the end of October. Neither Pfizer nor the FDA can move faster than the data we are generating through our clinical trial,” Castillo said.

If clinical work and regulatory approval or authorization proceed as planned, Pfizer and BioNTech expect to supply up to 100 million doses worldwide by the end of 2020 and approximately 1.3 billion doses worldwide by the end of 2021.

Pfizer is not willing to sacrifice safety and efficacy in the name of expediency, Castillo said. “We will not cut corners in this pursuit. Patient safety is our highest priority, and Pfizer will not bring a vaccine to market without adequate evidence of safety and efficacy.”
 

A positive move

“COVID-19 vaccines will only be useful if many people are willing to receive them,” said Kruse, a postgraduate year 3 resident in the Department of Pathology at Johns Hopkins Medicine in Baltimore, Maryland.

“By giving the general public along with other scientists and physicians the opportunity to critique the protocols, everyone can understand what the metrics would be for an early look at efficacy,” Kruse said. He noted that information could help inform a potential FDA emergency use authorization.

Kruse has disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

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Dr. Len Calabrese gives advice on vaccinating adult patients with rheumatic disease

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When it comes to preventing infection in rheumatology patients, “vaccination is the best mode of infection protection” and works synergistically with masks and hand washing, according to Leonard H. Calabrese, DO.

“Patients with rheumatic diseases have increased morbidity and mortality [from infection] and a lot of risk factors, including age, comorbidities, cytopenias, and extra-articular disease immunosuppression,” he said in a virtual presentation at the annual Perspectives in Rheumatic Diseases held by Global Academy for Medical Education.

Unfortunately, vaccination uptake remains “much lower than we would like in this country,” he said. Notably, influenza vaccination remains well below the World Health Organization target of 75%, he said.
 

Influenza vaccination

Flu vaccination will be even more important this year in the context of the COVID-19 pandemic, said Dr. Calabrese, professor of medicine and the RJ Fasenmyer Chair of Clinical Immunology at the Cleveland Clinic in Ohio. “For everyone who comes in with a respiratory illness, we will have to figure out whether it is flu or COVID,” he emphasized.

The Centers for Disease Control and Prevention recommendations include a detailed special considerations section for patients with immunocompromising conditions; “the notes have everything you need to know” about advising rheumatology patients, most of whom can safely receive a flu vaccine, he said.



One concern that always comes up is whether an antibody response will be suppressed based on therapy, Dr. Calabrese noted. Two major drugs with the greatest ability to reduce response are methotrexate and rituximab, he said. His tip: “Withhold methotrexate for two doses following seasonal flu vaccination.” This advice stems from a series of “practice-changing” studies by Park et al. published in 2017, 2018, and 2019 that showed benefit in withholding methotrexate for two doses following vaccination.

In the past, high-dose trivalent flu vaccines have been more expensive, and not necessarily practice changing, with studies showing varying clinical effectiveness and cost-effectiveness, Dr. Calabrese said. This year, a high-dose quadrivalent vaccine should be available that showed a 24% improvement in protection from all strains of influenza, compared with the standard vaccine in a head-to-head, randomized, controlled trial, he noted.

“All patients in rheumatology practices should get a flu vaccine,” with a 2-week hold on methotrexate following vaccination, he advised, and those aged 65 years and older should receive the high-dose quadrivalent. Younger patients on immunosuppressive therapy also might be considered for the high-dose vaccine, he said.

Pneumococcal vaccination

Dr. Calabrese also emphasized the value of pneumococcal vaccines for rheumatology patients. “The mortality for invasive disease ranges from 5% to 32%, but patients with immunocompromising conditions are at increased risk.”

Dr. Calabrese added a note on safety: Patients with cryopyrin-associated periodic syndrome (CAPS), a rare hereditary inflammatory disorder with cutaneous, neurologic, ophthalmologic, and rheumatologic manifestations, may have severe local and systemic reactions to the 23-valent polysaccharide vaccine (PPSV23), he said.

However, immunization against pneumococcal disease is safe and effective for most patients with autoimmune and inflammatory disorders regardless of their current therapy, he said. As with influenza, the CDC’s vaccination recommendations provide details for special situations, including immunocompromised individuals, he noted.

Dr. Calabrese recommended the 13-valent pneumococcal conjugate vaccine (PCV13) as soon as possible for rheumatology patients who have never been vaccinated, with follow-up doses of the 23-valent polysaccharide vaccine (PPSV23) at least 8 weeks later, and a PPSV23 booster 5 years after the first PPSV23 dose.
 

 

 

Protecting against shingles

When it comes to managing the varicella zoster virus (VZV) in immunocompromised patients, “prevention is preferable to treatment, as our patients are particularly vulnerable because of age and declining immunity,” Dr. Calabrese said.

Prevention is important because “once herpes zoster develops, the available treatments, including antiviral therapy, do not prevent postherpetic neuralgia in all patients,” he emphasized. “The treatments are complicated and not always effective,” he added.

The complications of zoster are well known, but recent data show an increased risk of cardiovascular disease as well, Dr. Calabrese said. “All the more reason to protect rheumatology patients from incident zoster,” he said.



Currently, the nonlive recombinant subunit zoster vaccine (Shingrix) is the preferred option for VZV vaccination according to the CDC’s Advisory Committee on Immunization Practices, Dr. Calabrese said. The CDC initially recommended its use to prevent herpes zoster and related complications in all immunocompetent adults aged 50 years and older; in an update, a C-level recommendation extends to “all patients aged 50 with or without immunosuppressive illnesses regardless of previous Zostavax exposure,” Dr. Calabrese said. “All patients on or starting [Janus] kinase inhibitors, regardless of age, should be considered” to receive the herpes zoster vaccine, he noted.

In general, promoting vaccination for rheumatology patients and for all patients is a multipronged effort that might include reminders, rewards, education, and standing orders, Dr. Calabrese said. Clinicians must continue to educate patients not only by strongly recommending the appropriate vaccines, but dispelling myths about vaccination, addressing fears, and providing current and accurate information, he said.

Dr. Calabrese disclosed relationships with AbbVie, Bristol-Myers Squibb, Crescendo, Genentech, Gilead, GlaxoSmithKline, Janssen, Novartis, Pfizer, Sanofi-Regeneron, and UCB.

Global Academy for Medical Education and this news organization are owned by the same parent company.

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When it comes to preventing infection in rheumatology patients, “vaccination is the best mode of infection protection” and works synergistically with masks and hand washing, according to Leonard H. Calabrese, DO.

“Patients with rheumatic diseases have increased morbidity and mortality [from infection] and a lot of risk factors, including age, comorbidities, cytopenias, and extra-articular disease immunosuppression,” he said in a virtual presentation at the annual Perspectives in Rheumatic Diseases held by Global Academy for Medical Education.

Unfortunately, vaccination uptake remains “much lower than we would like in this country,” he said. Notably, influenza vaccination remains well below the World Health Organization target of 75%, he said.
 

Influenza vaccination

Flu vaccination will be even more important this year in the context of the COVID-19 pandemic, said Dr. Calabrese, professor of medicine and the RJ Fasenmyer Chair of Clinical Immunology at the Cleveland Clinic in Ohio. “For everyone who comes in with a respiratory illness, we will have to figure out whether it is flu or COVID,” he emphasized.

The Centers for Disease Control and Prevention recommendations include a detailed special considerations section for patients with immunocompromising conditions; “the notes have everything you need to know” about advising rheumatology patients, most of whom can safely receive a flu vaccine, he said.



One concern that always comes up is whether an antibody response will be suppressed based on therapy, Dr. Calabrese noted. Two major drugs with the greatest ability to reduce response are methotrexate and rituximab, he said. His tip: “Withhold methotrexate for two doses following seasonal flu vaccination.” This advice stems from a series of “practice-changing” studies by Park et al. published in 2017, 2018, and 2019 that showed benefit in withholding methotrexate for two doses following vaccination.

In the past, high-dose trivalent flu vaccines have been more expensive, and not necessarily practice changing, with studies showing varying clinical effectiveness and cost-effectiveness, Dr. Calabrese said. This year, a high-dose quadrivalent vaccine should be available that showed a 24% improvement in protection from all strains of influenza, compared with the standard vaccine in a head-to-head, randomized, controlled trial, he noted.

“All patients in rheumatology practices should get a flu vaccine,” with a 2-week hold on methotrexate following vaccination, he advised, and those aged 65 years and older should receive the high-dose quadrivalent. Younger patients on immunosuppressive therapy also might be considered for the high-dose vaccine, he said.

Pneumococcal vaccination

Dr. Calabrese also emphasized the value of pneumococcal vaccines for rheumatology patients. “The mortality for invasive disease ranges from 5% to 32%, but patients with immunocompromising conditions are at increased risk.”

Dr. Calabrese added a note on safety: Patients with cryopyrin-associated periodic syndrome (CAPS), a rare hereditary inflammatory disorder with cutaneous, neurologic, ophthalmologic, and rheumatologic manifestations, may have severe local and systemic reactions to the 23-valent polysaccharide vaccine (PPSV23), he said.

However, immunization against pneumococcal disease is safe and effective for most patients with autoimmune and inflammatory disorders regardless of their current therapy, he said. As with influenza, the CDC’s vaccination recommendations provide details for special situations, including immunocompromised individuals, he noted.

Dr. Calabrese recommended the 13-valent pneumococcal conjugate vaccine (PCV13) as soon as possible for rheumatology patients who have never been vaccinated, with follow-up doses of the 23-valent polysaccharide vaccine (PPSV23) at least 8 weeks later, and a PPSV23 booster 5 years after the first PPSV23 dose.
 

 

 

Protecting against shingles

When it comes to managing the varicella zoster virus (VZV) in immunocompromised patients, “prevention is preferable to treatment, as our patients are particularly vulnerable because of age and declining immunity,” Dr. Calabrese said.

Prevention is important because “once herpes zoster develops, the available treatments, including antiviral therapy, do not prevent postherpetic neuralgia in all patients,” he emphasized. “The treatments are complicated and not always effective,” he added.

The complications of zoster are well known, but recent data show an increased risk of cardiovascular disease as well, Dr. Calabrese said. “All the more reason to protect rheumatology patients from incident zoster,” he said.



Currently, the nonlive recombinant subunit zoster vaccine (Shingrix) is the preferred option for VZV vaccination according to the CDC’s Advisory Committee on Immunization Practices, Dr. Calabrese said. The CDC initially recommended its use to prevent herpes zoster and related complications in all immunocompetent adults aged 50 years and older; in an update, a C-level recommendation extends to “all patients aged 50 with or without immunosuppressive illnesses regardless of previous Zostavax exposure,” Dr. Calabrese said. “All patients on or starting [Janus] kinase inhibitors, regardless of age, should be considered” to receive the herpes zoster vaccine, he noted.

In general, promoting vaccination for rheumatology patients and for all patients is a multipronged effort that might include reminders, rewards, education, and standing orders, Dr. Calabrese said. Clinicians must continue to educate patients not only by strongly recommending the appropriate vaccines, but dispelling myths about vaccination, addressing fears, and providing current and accurate information, he said.

Dr. Calabrese disclosed relationships with AbbVie, Bristol-Myers Squibb, Crescendo, Genentech, Gilead, GlaxoSmithKline, Janssen, Novartis, Pfizer, Sanofi-Regeneron, and UCB.

Global Academy for Medical Education and this news organization are owned by the same parent company.

 

When it comes to preventing infection in rheumatology patients, “vaccination is the best mode of infection protection” and works synergistically with masks and hand washing, according to Leonard H. Calabrese, DO.

“Patients with rheumatic diseases have increased morbidity and mortality [from infection] and a lot of risk factors, including age, comorbidities, cytopenias, and extra-articular disease immunosuppression,” he said in a virtual presentation at the annual Perspectives in Rheumatic Diseases held by Global Academy for Medical Education.

Unfortunately, vaccination uptake remains “much lower than we would like in this country,” he said. Notably, influenza vaccination remains well below the World Health Organization target of 75%, he said.
 

Influenza vaccination

Flu vaccination will be even more important this year in the context of the COVID-19 pandemic, said Dr. Calabrese, professor of medicine and the RJ Fasenmyer Chair of Clinical Immunology at the Cleveland Clinic in Ohio. “For everyone who comes in with a respiratory illness, we will have to figure out whether it is flu or COVID,” he emphasized.

The Centers for Disease Control and Prevention recommendations include a detailed special considerations section for patients with immunocompromising conditions; “the notes have everything you need to know” about advising rheumatology patients, most of whom can safely receive a flu vaccine, he said.



One concern that always comes up is whether an antibody response will be suppressed based on therapy, Dr. Calabrese noted. Two major drugs with the greatest ability to reduce response are methotrexate and rituximab, he said. His tip: “Withhold methotrexate for two doses following seasonal flu vaccination.” This advice stems from a series of “practice-changing” studies by Park et al. published in 2017, 2018, and 2019 that showed benefit in withholding methotrexate for two doses following vaccination.

In the past, high-dose trivalent flu vaccines have been more expensive, and not necessarily practice changing, with studies showing varying clinical effectiveness and cost-effectiveness, Dr. Calabrese said. This year, a high-dose quadrivalent vaccine should be available that showed a 24% improvement in protection from all strains of influenza, compared with the standard vaccine in a head-to-head, randomized, controlled trial, he noted.

“All patients in rheumatology practices should get a flu vaccine,” with a 2-week hold on methotrexate following vaccination, he advised, and those aged 65 years and older should receive the high-dose quadrivalent. Younger patients on immunosuppressive therapy also might be considered for the high-dose vaccine, he said.

Pneumococcal vaccination

Dr. Calabrese also emphasized the value of pneumococcal vaccines for rheumatology patients. “The mortality for invasive disease ranges from 5% to 32%, but patients with immunocompromising conditions are at increased risk.”

Dr. Calabrese added a note on safety: Patients with cryopyrin-associated periodic syndrome (CAPS), a rare hereditary inflammatory disorder with cutaneous, neurologic, ophthalmologic, and rheumatologic manifestations, may have severe local and systemic reactions to the 23-valent polysaccharide vaccine (PPSV23), he said.

However, immunization against pneumococcal disease is safe and effective for most patients with autoimmune and inflammatory disorders regardless of their current therapy, he said. As with influenza, the CDC’s vaccination recommendations provide details for special situations, including immunocompromised individuals, he noted.

Dr. Calabrese recommended the 13-valent pneumococcal conjugate vaccine (PCV13) as soon as possible for rheumatology patients who have never been vaccinated, with follow-up doses of the 23-valent polysaccharide vaccine (PPSV23) at least 8 weeks later, and a PPSV23 booster 5 years after the first PPSV23 dose.
 

 

 

Protecting against shingles

When it comes to managing the varicella zoster virus (VZV) in immunocompromised patients, “prevention is preferable to treatment, as our patients are particularly vulnerable because of age and declining immunity,” Dr. Calabrese said.

Prevention is important because “once herpes zoster develops, the available treatments, including antiviral therapy, do not prevent postherpetic neuralgia in all patients,” he emphasized. “The treatments are complicated and not always effective,” he added.

The complications of zoster are well known, but recent data show an increased risk of cardiovascular disease as well, Dr. Calabrese said. “All the more reason to protect rheumatology patients from incident zoster,” he said.



Currently, the nonlive recombinant subunit zoster vaccine (Shingrix) is the preferred option for VZV vaccination according to the CDC’s Advisory Committee on Immunization Practices, Dr. Calabrese said. The CDC initially recommended its use to prevent herpes zoster and related complications in all immunocompetent adults aged 50 years and older; in an update, a C-level recommendation extends to “all patients aged 50 with or without immunosuppressive illnesses regardless of previous Zostavax exposure,” Dr. Calabrese said. “All patients on or starting [Janus] kinase inhibitors, regardless of age, should be considered” to receive the herpes zoster vaccine, he noted.

In general, promoting vaccination for rheumatology patients and for all patients is a multipronged effort that might include reminders, rewards, education, and standing orders, Dr. Calabrese said. Clinicians must continue to educate patients not only by strongly recommending the appropriate vaccines, but dispelling myths about vaccination, addressing fears, and providing current and accurate information, he said.

Dr. Calabrese disclosed relationships with AbbVie, Bristol-Myers Squibb, Crescendo, Genentech, Gilead, GlaxoSmithKline, Janssen, Novartis, Pfizer, Sanofi-Regeneron, and UCB.

Global Academy for Medical Education and this news organization are owned by the same parent company.

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Dangers behind antimaskers and antivaxxers: How to combat both

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Niket Sonpal, MD, thought he’d heard most of the myths about wearing masks during the pandemic, but the recent claim from a patient was a new one for the New York City gastroenterologist.

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The patient refused to wear a mask because she heard inhaling bad breath through a mask could be toxic. The woman said the rumor was circulating on Facebook. Sonpal calmly explained that breathing your own breath is not going to cause health problems, he said.

“There’s a lot of controversy on masks,” he said. “Unfortunately, it’s really just a lack of education and buy-in. Social media is the primary source of all this misinformation. These kinds of over-the-top hyperbole has basically led to a disbelief that masks are effective. The disbelief is hard to break up.”

As mask requirements have tightened amid the ongoing pandemic, debates about face coverings have emerged front and center, with a growing number of people opposing mask usage. So-called antimaskers dispute the benefits of wearing masks and many contend that face coverings decrease oxygen flow and can lead to illness. Sentiment against masks have led to protests nationwide, ignited public conflicts in some areas, and even generated lawsuits over mask mandates.

The issue presents an ongoing challenge for physicians as they strive to educate patients about the significance of masking against the flood of antimask messages on social media and beyond. Opposition to masks is particularly frustrating for health professionals who have witnessed patients, family, or friends become ill or die from the virus. Refusing to mask and failing to social distance have been linked to the rapid spread of the coronavirus and subsequent deaths.

“I have had colleagues pass away, and it’s extremely disheartening and frustrating to see science so easily disregarded,” Sonpal said. “Masks save lives and protect people and not wearing them is simply a lack of respect, not just for your fellow colleagues, but for a member of your species.”

Michael Rebresh, who helped create the antimask group Million Unmasked Patriots, says his group’s objections to masks are rational and reasonable. The group, which has more than 8,000 members, formed in response to guidance by Illinois state officials that children would only be allowed to return to school wearing a mask.

“Our objections are to the fact that masks on children in school have a greater propensity to make children sick from breathing in bacteria that forms on the inner layer of a mask worn for hours on end,” Rebresh said. “We have an objection to the increase of CO2 intake and a decrease in oxygen flow for kids who need all the oxygen they can get during a learning environment. We recognized the masking of ourselves and kids for what it is: A political move to separate the two parties in our November election and define and create division between the two.”

Million Unmasked Patriots is one of dozens of antimask groups on social media platforms such as Facebook, Instagram, and TikTok. In July, Facebook suspended one such group, Unmasking America, which boasts 9,600 members, for posting repeated claims that face masks obstruct oxygen flow and have negative mental health effects.

Experts say the antiscience rhetoric is far from new. The antimask movement in many ways, shares similarities with that of the anti-vaccine movement, says Todd Wolynn, MD, a Pittsburgh pediatrician and cofounder of Shots Heard Round the World, an organization that defends vaccine advocates against coordinated online attacks by antivaxxers. Those espousing antimask views often relay similar or the same disinformation pushed by those with antivaccine views, Wolynn said.

“A lot of it is conspiracy-laden,” said Wolynn of the disinformation. “That Dr. [Anthony] Fauci somehow helped construct the pandemic and that it’s not real. That Bill Gates is funding the vaccine so he can inject people with microchips. All sorts of really out-there, ungrounded conspiracy theories. If you had Venn diagram of antimask and antivaxx, I would say there’s clearly overlap.”
 

 

 

Parallels between antimaskers, antivaxxers

Opponents to masks fall on a spectrum, explains Vineet Arora, MD, a hospitalist and associate chief medical officer–clinical learning environment at University of Chicago Medicine. People who believe conspiracy theories and push misinformation are on one end, she said. There are also those who generally don’t believe the seriousness of the pandemic, feel their risk is minimal, or doubt the benefits of masks.

The two trains of thought resemble the distinction among parents who are antivaccine and those who are simply “vaccine hesitant,” says Arora, who co-authored a recent article about masking and misinformation that addresses antivaccine attitudes.

“While the antimask sentiment gets a lot of attention, I think it’s important to highlight there’s a lot of vocal anti-mask sentiment since most people are supportive of masks,” she said. “There might be people sitting on the fence who are just unsure about wearing a mask. That’s understandable because the science and the communication has evolved. There was a lot of early mixed messages about masking. Anytime you have confusion about the science or the science is evolving, it’s easy to have misinformation and then have that take off as myth.”

Just as antivaxxers work to swing the opinion of the vaccine hesitant, antimaskers are vying with public health advocates for the support of the mask hesitant, she said. Creating doubt in public health authorities is one way they are gaining followers. Anti-maskers often question and scrutinize past messaging about masks by public health officials, claiming that because guidance on masks has changed over time, the science behind masks and current guidance can’t be trusted, Wolynn said. Similarly, antivaxxers frequently question past actions by public health officials, such as the Tuskegee Experiment (which began in 1932), to try to poke holes in the credibility of public health officials and their advice.

Both the antimask and antivaccine movements also tend to base their resistance on a personal liberties argument, adds Jacqueline Winfield Fincher, MD, president for the American College of Physicians and an internist based in Thomson, Georgia. Antimaskers contend they should be free to decide whether to wear face coverings and that rules requiring masks infringe upon their civil liberties. Similarly, antivaxxers argue they should be free to decide whether to vaccinate their children and contend vaccine mandates violate their personal liberties.

Taking a deeper look, fear and control are two likely drivers of antimasking and antivaccine attitudes, Fincher said. Those refusing to wear masks may feel they have no control over the pandemic or its impacts, but they can control how they respond to mask-wearing requirements, she said.

Antivaccine parents often want more control over their children’s healthcare and falsely believe that vaccines are injecting something harmful into their children or may lead to harmful reactions.

“It’s a control issue and a defense mechanism,” she said. “Some people may feel helpless to deal with the pandemic or believe since it is not affecting them or their family, that it is not real. ‘If I just deny it and I don’t acknowledge facts, I don’t have to worry about it or do anything about it, and therefore I will have more control over my day-to-day life.’”
 

 

 

Groups fueling each other

In some cases, antimask and antivaxx groups are joining forces or adopting dual causes.

In California for instance, longtime opponents to vaccines are now objecting to mask policies as similar infringement to their bodily autonomy. Demonstrations in Texas, Idaho, and Michigan against mask mandates and other COVID-19 requirements have drawn support from anti-vaccine activists and incorporated antivaccine propaganda.

In Illinois, Million Unmasked Patriots, formally the Million Unmasked March, has received widespread attention for protesting both masks for returning schoolchildren and a future COVID-19 vaccine requirement.

A July protest planned by the antimask group triggered a letter by Arora and 500 other healthcare professionals to Illinois lawmakers decrying the group’s views and urging the state to move forward with universal masking in schools.

“What’s happening is those who are distrustful of government and public health and science are joining together,” said Arora, who coauthored a piece about the problem on KevinMD.com. “It’s important to address both movements together because they can quickly feed off each other and build in momentum. At the heart of both is really this deep skepticism of science.”

Rebresh of Million Unmasked Patriots said most of his members are not opposed to all vaccines, but rather they are opposed to “untested vaccines.” The primary concern is the inability to research long-term effects of a COVID-19 vaccine before its approval, he said.

Rebresh disagrees with the antimask movement being compared with the antivaccine movement. The two groups are “motivated by different things and a different set of circumstances drive their opinions,” he said. However, Rebresh believes that potential harm resulting from “mass vaccinations” is a valid concern. For this reason, he and his wife chose for their children to receive their vaccinations individually over a series of weeks, rather than the “kiddie cocktail of vaccines,” at a single visit, he said.

Vaccine scientist Peter Hotez, MD, PhD, said the antivaccine movement appears to have grown stronger from the pandemic fueled by fresh conspiracies and new alliances. Antivaccine sentiment has been gaining steam over the last several years and collecting more allies from the far-right, said Hotez, dean for the National School of Tropical Medicine and codirector for the Texas Children’s Hospital Center for Vaccine Development.

“Now what you’re seeing is yet another expansion this year, with antivaccine groups, under the banner of ‘health freedom,’ campaigning against social distancing and wearing masks and contact tracing,” he said. “What was an antivaccine movement has now become a full-blown antiscience movement and an anti-public health movement. It’s causing a lot of damage and I believe costing a lot of American lives.”

Neil F. Johnson, PhD, who has studied the antivaccine movement and its social media proliferation during the pandemic, said online comments by antivaxxers frequently condemn mask usage and showcase memes making fun of masks.

“In those same narratives about opposing vaccines for COVID, we see a lot of discussion against masks,” said Johnson, a physics professor at George Washington University in Washington, D.C. “If you don’t believe in the official picture of COVID, you don’t believe the policies or the advice that’s given about COVID.”

An analysis by Johnson that examined 1,300 Facebook pages found that, while antivaxxers have fewer followers than provaccine pages, antivaccine pages are more numerous, faster growing, and are more often connected to unrelated, undecided pages. Conversely, pages that advocate the benefits of vaccinations and explain the science behind immunizations are largely disconnected from such undecided communities, according to the study, published May 13 in Nature.

The study suggests the antivaccine movement is making influential strides during the pandemic and connecting with people who are undecided, while public health advocates are not building the same bridges, Johnson said.

“I think it’s hugely dangerous, because I don’t know any other moment in science or in public health when there was so much uncertainty in something affecting everybody,” he said. “Every policy that will be coming, everything depends on people buying into the official message. Once you have the seeds of doubt, that’s a very difficult thing to overcome. It’s an unprecedented challenge.”
 

 

 

How physicians and clinicians can help

A more aggressive approach is necessary when it comes to taking down antiscience content on social media, says Hotez. Too often, misinformation and antiscience rhetoric is allowed to linger on popular sites such as Facebook and Amazon.

Wolynn agrees. On personal or business platforms, it’s crucial to ban, hide, and delete such comments as quickly as possible, he said. On public sites, purposeful disinformation should be immediately reported to the platform.

At the same time, Wolynn said it’s essential to support those who make sound, science-based comments in social media forums.

“If you see someone who is pushing accurate, evidence-based information, and they come under attack, they should be supported and defended and empowered,” Wolynn said. “Shots Heard Round the World is doing all of those things, including galvanizing and recruiting more people to help get their voices out there.”

Expanded visibility by physicians and scientists would greatly help counter the spread of antiscience sentiment, adds Hotez.

“Too often, antiscience movements are able to flourish because scientists and physicians are invisible,” he said. “They’re too focused on either clinical practices or in the case of physician scientists, on grants and papers and not enough attention to public engagement. We’re going to have to change that around. We need to hear more from scientists directly.”

To that end, Wolynn said health care professionals, including medical students and residents, need to have formal training in communications, media, and social media as part of their education – and more support from employers to engage through social media.

“That’s where the fight is,” Wolynn said. “You can be the best diagnostician, the best clinician. You can make the right diagnosis and prescribe the right medication, but if families don’t hear what you’re saying, you’re not going to be effective. If you can’t be on the platform where they’re being influenced, we’re losing the battle.”
 

Speaking to your mask-hesitant patients

Concentrating on those who are uncertain about masks is particularly key for physicians and public health advocates as the pandemic continues, says Arora.

“It’s important for us to focus on the mask-hesitant who often don’t get the attention they need,” she said.

She suggests bringing up the subject of masks with patients during visits, asking about mask usage, discussing rumors they’ve heard, and emphasizing why masks are important. Be a role model by wearing a mask in your community and on social media, she added.

Some patients have real concerns about not being able to breathe through masks or anxiety disorders that can be aggravated even by the thought of wearing a mask, noted Susan R. Bailey, MD, president for the American Medical Association. Bailey, an immunologist, recently counseled a patient with a deviated nasal septum in addition to a panic disorder who was worried about wearing a mask, she said. Bailey listened to the patient’s concerns, discussed his health conditions, and proposed an alternative face covering that might make him more comfortable.

“Every patient is different,” Bailey said. “It’s important for us to remember that each person who is reluctant to wear a mask has their own reasons. It’s important for us to express some empathy – to agree with them, yes, masks are hot and inconvenient – and help understand their questions, which you may be able to answer to their satisfaction. There are patients that have legitimate questions and a physician caring about how they feel, can make all the difference.”

Physicians can also get involved with the AMA’s #MaskUp campaign, an effort to normalize mask wearing and debunk myths associated with masks. The campaign includes social media materials, slogans doctors can tweet, and profile pictures they can use on social media. The campaign’s toolkit includes images, videos, and information that physicians can share with patients and the public.

Enforcing strong mask policies at your practice and ensuring all staff are modeling appropriate mask behavior is also important, adds Fincher of the ACP. The college recently issued a policy supporting mask usage in community settings.

If a patient conveys an antimask belief, Fincher suggests not directly challenging the person’s views, but listening to them and offering objective data, discussing the science behind masks, and directing them to credible sources.

“Doctors are used to this. We recommend a lot of things to patients that they don’t want to do,” Fincher said. “If a patient feels attacked, they act defensively. But if you base your explanation in more objective terms with data, numbers, and personalize the risks and benefits of a vaccine, a healthy change in behavior, or a medication, then patients are more likely to hear your concerns and do the right thing. Having a long-term relationship with a trusted physician makes all of these issues much easier to discuss and to implement the best plan for the individual patient.”

This article first appeared on Medscape.com.

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Niket Sonpal, MD, thought he’d heard most of the myths about wearing masks during the pandemic, but the recent claim from a patient was a new one for the New York City gastroenterologist.

iStock/Getty Images Plus/skynesher

The patient refused to wear a mask because she heard inhaling bad breath through a mask could be toxic. The woman said the rumor was circulating on Facebook. Sonpal calmly explained that breathing your own breath is not going to cause health problems, he said.

“There’s a lot of controversy on masks,” he said. “Unfortunately, it’s really just a lack of education and buy-in. Social media is the primary source of all this misinformation. These kinds of over-the-top hyperbole has basically led to a disbelief that masks are effective. The disbelief is hard to break up.”

As mask requirements have tightened amid the ongoing pandemic, debates about face coverings have emerged front and center, with a growing number of people opposing mask usage. So-called antimaskers dispute the benefits of wearing masks and many contend that face coverings decrease oxygen flow and can lead to illness. Sentiment against masks have led to protests nationwide, ignited public conflicts in some areas, and even generated lawsuits over mask mandates.

The issue presents an ongoing challenge for physicians as they strive to educate patients about the significance of masking against the flood of antimask messages on social media and beyond. Opposition to masks is particularly frustrating for health professionals who have witnessed patients, family, or friends become ill or die from the virus. Refusing to mask and failing to social distance have been linked to the rapid spread of the coronavirus and subsequent deaths.

“I have had colleagues pass away, and it’s extremely disheartening and frustrating to see science so easily disregarded,” Sonpal said. “Masks save lives and protect people and not wearing them is simply a lack of respect, not just for your fellow colleagues, but for a member of your species.”

Michael Rebresh, who helped create the antimask group Million Unmasked Patriots, says his group’s objections to masks are rational and reasonable. The group, which has more than 8,000 members, formed in response to guidance by Illinois state officials that children would only be allowed to return to school wearing a mask.

“Our objections are to the fact that masks on children in school have a greater propensity to make children sick from breathing in bacteria that forms on the inner layer of a mask worn for hours on end,” Rebresh said. “We have an objection to the increase of CO2 intake and a decrease in oxygen flow for kids who need all the oxygen they can get during a learning environment. We recognized the masking of ourselves and kids for what it is: A political move to separate the two parties in our November election and define and create division between the two.”

Million Unmasked Patriots is one of dozens of antimask groups on social media platforms such as Facebook, Instagram, and TikTok. In July, Facebook suspended one such group, Unmasking America, which boasts 9,600 members, for posting repeated claims that face masks obstruct oxygen flow and have negative mental health effects.

Experts say the antiscience rhetoric is far from new. The antimask movement in many ways, shares similarities with that of the anti-vaccine movement, says Todd Wolynn, MD, a Pittsburgh pediatrician and cofounder of Shots Heard Round the World, an organization that defends vaccine advocates against coordinated online attacks by antivaxxers. Those espousing antimask views often relay similar or the same disinformation pushed by those with antivaccine views, Wolynn said.

“A lot of it is conspiracy-laden,” said Wolynn of the disinformation. “That Dr. [Anthony] Fauci somehow helped construct the pandemic and that it’s not real. That Bill Gates is funding the vaccine so he can inject people with microchips. All sorts of really out-there, ungrounded conspiracy theories. If you had Venn diagram of antimask and antivaxx, I would say there’s clearly overlap.”
 

 

 

Parallels between antimaskers, antivaxxers

Opponents to masks fall on a spectrum, explains Vineet Arora, MD, a hospitalist and associate chief medical officer–clinical learning environment at University of Chicago Medicine. People who believe conspiracy theories and push misinformation are on one end, she said. There are also those who generally don’t believe the seriousness of the pandemic, feel their risk is minimal, or doubt the benefits of masks.

The two trains of thought resemble the distinction among parents who are antivaccine and those who are simply “vaccine hesitant,” says Arora, who co-authored a recent article about masking and misinformation that addresses antivaccine attitudes.

“While the antimask sentiment gets a lot of attention, I think it’s important to highlight there’s a lot of vocal anti-mask sentiment since most people are supportive of masks,” she said. “There might be people sitting on the fence who are just unsure about wearing a mask. That’s understandable because the science and the communication has evolved. There was a lot of early mixed messages about masking. Anytime you have confusion about the science or the science is evolving, it’s easy to have misinformation and then have that take off as myth.”

Just as antivaxxers work to swing the opinion of the vaccine hesitant, antimaskers are vying with public health advocates for the support of the mask hesitant, she said. Creating doubt in public health authorities is one way they are gaining followers. Anti-maskers often question and scrutinize past messaging about masks by public health officials, claiming that because guidance on masks has changed over time, the science behind masks and current guidance can’t be trusted, Wolynn said. Similarly, antivaxxers frequently question past actions by public health officials, such as the Tuskegee Experiment (which began in 1932), to try to poke holes in the credibility of public health officials and their advice.

Both the antimask and antivaccine movements also tend to base their resistance on a personal liberties argument, adds Jacqueline Winfield Fincher, MD, president for the American College of Physicians and an internist based in Thomson, Georgia. Antimaskers contend they should be free to decide whether to wear face coverings and that rules requiring masks infringe upon their civil liberties. Similarly, antivaxxers argue they should be free to decide whether to vaccinate their children and contend vaccine mandates violate their personal liberties.

Taking a deeper look, fear and control are two likely drivers of antimasking and antivaccine attitudes, Fincher said. Those refusing to wear masks may feel they have no control over the pandemic or its impacts, but they can control how they respond to mask-wearing requirements, she said.

Antivaccine parents often want more control over their children’s healthcare and falsely believe that vaccines are injecting something harmful into their children or may lead to harmful reactions.

“It’s a control issue and a defense mechanism,” she said. “Some people may feel helpless to deal with the pandemic or believe since it is not affecting them or their family, that it is not real. ‘If I just deny it and I don’t acknowledge facts, I don’t have to worry about it or do anything about it, and therefore I will have more control over my day-to-day life.’”
 

 

 

Groups fueling each other

In some cases, antimask and antivaxx groups are joining forces or adopting dual causes.

In California for instance, longtime opponents to vaccines are now objecting to mask policies as similar infringement to their bodily autonomy. Demonstrations in Texas, Idaho, and Michigan against mask mandates and other COVID-19 requirements have drawn support from anti-vaccine activists and incorporated antivaccine propaganda.

In Illinois, Million Unmasked Patriots, formally the Million Unmasked March, has received widespread attention for protesting both masks for returning schoolchildren and a future COVID-19 vaccine requirement.

A July protest planned by the antimask group triggered a letter by Arora and 500 other healthcare professionals to Illinois lawmakers decrying the group’s views and urging the state to move forward with universal masking in schools.

“What’s happening is those who are distrustful of government and public health and science are joining together,” said Arora, who coauthored a piece about the problem on KevinMD.com. “It’s important to address both movements together because they can quickly feed off each other and build in momentum. At the heart of both is really this deep skepticism of science.”

Rebresh of Million Unmasked Patriots said most of his members are not opposed to all vaccines, but rather they are opposed to “untested vaccines.” The primary concern is the inability to research long-term effects of a COVID-19 vaccine before its approval, he said.

Rebresh disagrees with the antimask movement being compared with the antivaccine movement. The two groups are “motivated by different things and a different set of circumstances drive their opinions,” he said. However, Rebresh believes that potential harm resulting from “mass vaccinations” is a valid concern. For this reason, he and his wife chose for their children to receive their vaccinations individually over a series of weeks, rather than the “kiddie cocktail of vaccines,” at a single visit, he said.

Vaccine scientist Peter Hotez, MD, PhD, said the antivaccine movement appears to have grown stronger from the pandemic fueled by fresh conspiracies and new alliances. Antivaccine sentiment has been gaining steam over the last several years and collecting more allies from the far-right, said Hotez, dean for the National School of Tropical Medicine and codirector for the Texas Children’s Hospital Center for Vaccine Development.

“Now what you’re seeing is yet another expansion this year, with antivaccine groups, under the banner of ‘health freedom,’ campaigning against social distancing and wearing masks and contact tracing,” he said. “What was an antivaccine movement has now become a full-blown antiscience movement and an anti-public health movement. It’s causing a lot of damage and I believe costing a lot of American lives.”

Neil F. Johnson, PhD, who has studied the antivaccine movement and its social media proliferation during the pandemic, said online comments by antivaxxers frequently condemn mask usage and showcase memes making fun of masks.

“In those same narratives about opposing vaccines for COVID, we see a lot of discussion against masks,” said Johnson, a physics professor at George Washington University in Washington, D.C. “If you don’t believe in the official picture of COVID, you don’t believe the policies or the advice that’s given about COVID.”

An analysis by Johnson that examined 1,300 Facebook pages found that, while antivaxxers have fewer followers than provaccine pages, antivaccine pages are more numerous, faster growing, and are more often connected to unrelated, undecided pages. Conversely, pages that advocate the benefits of vaccinations and explain the science behind immunizations are largely disconnected from such undecided communities, according to the study, published May 13 in Nature.

The study suggests the antivaccine movement is making influential strides during the pandemic and connecting with people who are undecided, while public health advocates are not building the same bridges, Johnson said.

“I think it’s hugely dangerous, because I don’t know any other moment in science or in public health when there was so much uncertainty in something affecting everybody,” he said. “Every policy that will be coming, everything depends on people buying into the official message. Once you have the seeds of doubt, that’s a very difficult thing to overcome. It’s an unprecedented challenge.”
 

 

 

How physicians and clinicians can help

A more aggressive approach is necessary when it comes to taking down antiscience content on social media, says Hotez. Too often, misinformation and antiscience rhetoric is allowed to linger on popular sites such as Facebook and Amazon.

Wolynn agrees. On personal or business platforms, it’s crucial to ban, hide, and delete such comments as quickly as possible, he said. On public sites, purposeful disinformation should be immediately reported to the platform.

At the same time, Wolynn said it’s essential to support those who make sound, science-based comments in social media forums.

“If you see someone who is pushing accurate, evidence-based information, and they come under attack, they should be supported and defended and empowered,” Wolynn said. “Shots Heard Round the World is doing all of those things, including galvanizing and recruiting more people to help get their voices out there.”

Expanded visibility by physicians and scientists would greatly help counter the spread of antiscience sentiment, adds Hotez.

“Too often, antiscience movements are able to flourish because scientists and physicians are invisible,” he said. “They’re too focused on either clinical practices or in the case of physician scientists, on grants and papers and not enough attention to public engagement. We’re going to have to change that around. We need to hear more from scientists directly.”

To that end, Wolynn said health care professionals, including medical students and residents, need to have formal training in communications, media, and social media as part of their education – and more support from employers to engage through social media.

“That’s where the fight is,” Wolynn said. “You can be the best diagnostician, the best clinician. You can make the right diagnosis and prescribe the right medication, but if families don’t hear what you’re saying, you’re not going to be effective. If you can’t be on the platform where they’re being influenced, we’re losing the battle.”
 

Speaking to your mask-hesitant patients

Concentrating on those who are uncertain about masks is particularly key for physicians and public health advocates as the pandemic continues, says Arora.

“It’s important for us to focus on the mask-hesitant who often don’t get the attention they need,” she said.

She suggests bringing up the subject of masks with patients during visits, asking about mask usage, discussing rumors they’ve heard, and emphasizing why masks are important. Be a role model by wearing a mask in your community and on social media, she added.

Some patients have real concerns about not being able to breathe through masks or anxiety disorders that can be aggravated even by the thought of wearing a mask, noted Susan R. Bailey, MD, president for the American Medical Association. Bailey, an immunologist, recently counseled a patient with a deviated nasal septum in addition to a panic disorder who was worried about wearing a mask, she said. Bailey listened to the patient’s concerns, discussed his health conditions, and proposed an alternative face covering that might make him more comfortable.

“Every patient is different,” Bailey said. “It’s important for us to remember that each person who is reluctant to wear a mask has their own reasons. It’s important for us to express some empathy – to agree with them, yes, masks are hot and inconvenient – and help understand their questions, which you may be able to answer to their satisfaction. There are patients that have legitimate questions and a physician caring about how they feel, can make all the difference.”

Physicians can also get involved with the AMA’s #MaskUp campaign, an effort to normalize mask wearing and debunk myths associated with masks. The campaign includes social media materials, slogans doctors can tweet, and profile pictures they can use on social media. The campaign’s toolkit includes images, videos, and information that physicians can share with patients and the public.

Enforcing strong mask policies at your practice and ensuring all staff are modeling appropriate mask behavior is also important, adds Fincher of the ACP. The college recently issued a policy supporting mask usage in community settings.

If a patient conveys an antimask belief, Fincher suggests not directly challenging the person’s views, but listening to them and offering objective data, discussing the science behind masks, and directing them to credible sources.

“Doctors are used to this. We recommend a lot of things to patients that they don’t want to do,” Fincher said. “If a patient feels attacked, they act defensively. But if you base your explanation in more objective terms with data, numbers, and personalize the risks and benefits of a vaccine, a healthy change in behavior, or a medication, then patients are more likely to hear your concerns and do the right thing. Having a long-term relationship with a trusted physician makes all of these issues much easier to discuss and to implement the best plan for the individual patient.”

This article first appeared on Medscape.com.

Niket Sonpal, MD, thought he’d heard most of the myths about wearing masks during the pandemic, but the recent claim from a patient was a new one for the New York City gastroenterologist.

iStock/Getty Images Plus/skynesher

The patient refused to wear a mask because she heard inhaling bad breath through a mask could be toxic. The woman said the rumor was circulating on Facebook. Sonpal calmly explained that breathing your own breath is not going to cause health problems, he said.

“There’s a lot of controversy on masks,” he said. “Unfortunately, it’s really just a lack of education and buy-in. Social media is the primary source of all this misinformation. These kinds of over-the-top hyperbole has basically led to a disbelief that masks are effective. The disbelief is hard to break up.”

As mask requirements have tightened amid the ongoing pandemic, debates about face coverings have emerged front and center, with a growing number of people opposing mask usage. So-called antimaskers dispute the benefits of wearing masks and many contend that face coverings decrease oxygen flow and can lead to illness. Sentiment against masks have led to protests nationwide, ignited public conflicts in some areas, and even generated lawsuits over mask mandates.

The issue presents an ongoing challenge for physicians as they strive to educate patients about the significance of masking against the flood of antimask messages on social media and beyond. Opposition to masks is particularly frustrating for health professionals who have witnessed patients, family, or friends become ill or die from the virus. Refusing to mask and failing to social distance have been linked to the rapid spread of the coronavirus and subsequent deaths.

“I have had colleagues pass away, and it’s extremely disheartening and frustrating to see science so easily disregarded,” Sonpal said. “Masks save lives and protect people and not wearing them is simply a lack of respect, not just for your fellow colleagues, but for a member of your species.”

Michael Rebresh, who helped create the antimask group Million Unmasked Patriots, says his group’s objections to masks are rational and reasonable. The group, which has more than 8,000 members, formed in response to guidance by Illinois state officials that children would only be allowed to return to school wearing a mask.

“Our objections are to the fact that masks on children in school have a greater propensity to make children sick from breathing in bacteria that forms on the inner layer of a mask worn for hours on end,” Rebresh said. “We have an objection to the increase of CO2 intake and a decrease in oxygen flow for kids who need all the oxygen they can get during a learning environment. We recognized the masking of ourselves and kids for what it is: A political move to separate the two parties in our November election and define and create division between the two.”

Million Unmasked Patriots is one of dozens of antimask groups on social media platforms such as Facebook, Instagram, and TikTok. In July, Facebook suspended one such group, Unmasking America, which boasts 9,600 members, for posting repeated claims that face masks obstruct oxygen flow and have negative mental health effects.

Experts say the antiscience rhetoric is far from new. The antimask movement in many ways, shares similarities with that of the anti-vaccine movement, says Todd Wolynn, MD, a Pittsburgh pediatrician and cofounder of Shots Heard Round the World, an organization that defends vaccine advocates against coordinated online attacks by antivaxxers. Those espousing antimask views often relay similar or the same disinformation pushed by those with antivaccine views, Wolynn said.

“A lot of it is conspiracy-laden,” said Wolynn of the disinformation. “That Dr. [Anthony] Fauci somehow helped construct the pandemic and that it’s not real. That Bill Gates is funding the vaccine so he can inject people with microchips. All sorts of really out-there, ungrounded conspiracy theories. If you had Venn diagram of antimask and antivaxx, I would say there’s clearly overlap.”
 

 

 

Parallels between antimaskers, antivaxxers

Opponents to masks fall on a spectrum, explains Vineet Arora, MD, a hospitalist and associate chief medical officer–clinical learning environment at University of Chicago Medicine. People who believe conspiracy theories and push misinformation are on one end, she said. There are also those who generally don’t believe the seriousness of the pandemic, feel their risk is minimal, or doubt the benefits of masks.

The two trains of thought resemble the distinction among parents who are antivaccine and those who are simply “vaccine hesitant,” says Arora, who co-authored a recent article about masking and misinformation that addresses antivaccine attitudes.

“While the antimask sentiment gets a lot of attention, I think it’s important to highlight there’s a lot of vocal anti-mask sentiment since most people are supportive of masks,” she said. “There might be people sitting on the fence who are just unsure about wearing a mask. That’s understandable because the science and the communication has evolved. There was a lot of early mixed messages about masking. Anytime you have confusion about the science or the science is evolving, it’s easy to have misinformation and then have that take off as myth.”

Just as antivaxxers work to swing the opinion of the vaccine hesitant, antimaskers are vying with public health advocates for the support of the mask hesitant, she said. Creating doubt in public health authorities is one way they are gaining followers. Anti-maskers often question and scrutinize past messaging about masks by public health officials, claiming that because guidance on masks has changed over time, the science behind masks and current guidance can’t be trusted, Wolynn said. Similarly, antivaxxers frequently question past actions by public health officials, such as the Tuskegee Experiment (which began in 1932), to try to poke holes in the credibility of public health officials and their advice.

Both the antimask and antivaccine movements also tend to base their resistance on a personal liberties argument, adds Jacqueline Winfield Fincher, MD, president for the American College of Physicians and an internist based in Thomson, Georgia. Antimaskers contend they should be free to decide whether to wear face coverings and that rules requiring masks infringe upon their civil liberties. Similarly, antivaxxers argue they should be free to decide whether to vaccinate their children and contend vaccine mandates violate their personal liberties.

Taking a deeper look, fear and control are two likely drivers of antimasking and antivaccine attitudes, Fincher said. Those refusing to wear masks may feel they have no control over the pandemic or its impacts, but they can control how they respond to mask-wearing requirements, she said.

Antivaccine parents often want more control over their children’s healthcare and falsely believe that vaccines are injecting something harmful into their children or may lead to harmful reactions.

“It’s a control issue and a defense mechanism,” she said. “Some people may feel helpless to deal with the pandemic or believe since it is not affecting them or their family, that it is not real. ‘If I just deny it and I don’t acknowledge facts, I don’t have to worry about it or do anything about it, and therefore I will have more control over my day-to-day life.’”
 

 

 

Groups fueling each other

In some cases, antimask and antivaxx groups are joining forces or adopting dual causes.

In California for instance, longtime opponents to vaccines are now objecting to mask policies as similar infringement to their bodily autonomy. Demonstrations in Texas, Idaho, and Michigan against mask mandates and other COVID-19 requirements have drawn support from anti-vaccine activists and incorporated antivaccine propaganda.

In Illinois, Million Unmasked Patriots, formally the Million Unmasked March, has received widespread attention for protesting both masks for returning schoolchildren and a future COVID-19 vaccine requirement.

A July protest planned by the antimask group triggered a letter by Arora and 500 other healthcare professionals to Illinois lawmakers decrying the group’s views and urging the state to move forward with universal masking in schools.

“What’s happening is those who are distrustful of government and public health and science are joining together,” said Arora, who coauthored a piece about the problem on KevinMD.com. “It’s important to address both movements together because they can quickly feed off each other and build in momentum. At the heart of both is really this deep skepticism of science.”

Rebresh of Million Unmasked Patriots said most of his members are not opposed to all vaccines, but rather they are opposed to “untested vaccines.” The primary concern is the inability to research long-term effects of a COVID-19 vaccine before its approval, he said.

Rebresh disagrees with the antimask movement being compared with the antivaccine movement. The two groups are “motivated by different things and a different set of circumstances drive their opinions,” he said. However, Rebresh believes that potential harm resulting from “mass vaccinations” is a valid concern. For this reason, he and his wife chose for their children to receive their vaccinations individually over a series of weeks, rather than the “kiddie cocktail of vaccines,” at a single visit, he said.

Vaccine scientist Peter Hotez, MD, PhD, said the antivaccine movement appears to have grown stronger from the pandemic fueled by fresh conspiracies and new alliances. Antivaccine sentiment has been gaining steam over the last several years and collecting more allies from the far-right, said Hotez, dean for the National School of Tropical Medicine and codirector for the Texas Children’s Hospital Center for Vaccine Development.

“Now what you’re seeing is yet another expansion this year, with antivaccine groups, under the banner of ‘health freedom,’ campaigning against social distancing and wearing masks and contact tracing,” he said. “What was an antivaccine movement has now become a full-blown antiscience movement and an anti-public health movement. It’s causing a lot of damage and I believe costing a lot of American lives.”

Neil F. Johnson, PhD, who has studied the antivaccine movement and its social media proliferation during the pandemic, said online comments by antivaxxers frequently condemn mask usage and showcase memes making fun of masks.

“In those same narratives about opposing vaccines for COVID, we see a lot of discussion against masks,” said Johnson, a physics professor at George Washington University in Washington, D.C. “If you don’t believe in the official picture of COVID, you don’t believe the policies or the advice that’s given about COVID.”

An analysis by Johnson that examined 1,300 Facebook pages found that, while antivaxxers have fewer followers than provaccine pages, antivaccine pages are more numerous, faster growing, and are more often connected to unrelated, undecided pages. Conversely, pages that advocate the benefits of vaccinations and explain the science behind immunizations are largely disconnected from such undecided communities, according to the study, published May 13 in Nature.

The study suggests the antivaccine movement is making influential strides during the pandemic and connecting with people who are undecided, while public health advocates are not building the same bridges, Johnson said.

“I think it’s hugely dangerous, because I don’t know any other moment in science or in public health when there was so much uncertainty in something affecting everybody,” he said. “Every policy that will be coming, everything depends on people buying into the official message. Once you have the seeds of doubt, that’s a very difficult thing to overcome. It’s an unprecedented challenge.”
 

 

 

How physicians and clinicians can help

A more aggressive approach is necessary when it comes to taking down antiscience content on social media, says Hotez. Too often, misinformation and antiscience rhetoric is allowed to linger on popular sites such as Facebook and Amazon.

Wolynn agrees. On personal or business platforms, it’s crucial to ban, hide, and delete such comments as quickly as possible, he said. On public sites, purposeful disinformation should be immediately reported to the platform.

At the same time, Wolynn said it’s essential to support those who make sound, science-based comments in social media forums.

“If you see someone who is pushing accurate, evidence-based information, and they come under attack, they should be supported and defended and empowered,” Wolynn said. “Shots Heard Round the World is doing all of those things, including galvanizing and recruiting more people to help get their voices out there.”

Expanded visibility by physicians and scientists would greatly help counter the spread of antiscience sentiment, adds Hotez.

“Too often, antiscience movements are able to flourish because scientists and physicians are invisible,” he said. “They’re too focused on either clinical practices or in the case of physician scientists, on grants and papers and not enough attention to public engagement. We’re going to have to change that around. We need to hear more from scientists directly.”

To that end, Wolynn said health care professionals, including medical students and residents, need to have formal training in communications, media, and social media as part of their education – and more support from employers to engage through social media.

“That’s where the fight is,” Wolynn said. “You can be the best diagnostician, the best clinician. You can make the right diagnosis and prescribe the right medication, but if families don’t hear what you’re saying, you’re not going to be effective. If you can’t be on the platform where they’re being influenced, we’re losing the battle.”
 

Speaking to your mask-hesitant patients

Concentrating on those who are uncertain about masks is particularly key for physicians and public health advocates as the pandemic continues, says Arora.

“It’s important for us to focus on the mask-hesitant who often don’t get the attention they need,” she said.

She suggests bringing up the subject of masks with patients during visits, asking about mask usage, discussing rumors they’ve heard, and emphasizing why masks are important. Be a role model by wearing a mask in your community and on social media, she added.

Some patients have real concerns about not being able to breathe through masks or anxiety disorders that can be aggravated even by the thought of wearing a mask, noted Susan R. Bailey, MD, president for the American Medical Association. Bailey, an immunologist, recently counseled a patient with a deviated nasal septum in addition to a panic disorder who was worried about wearing a mask, she said. Bailey listened to the patient’s concerns, discussed his health conditions, and proposed an alternative face covering that might make him more comfortable.

“Every patient is different,” Bailey said. “It’s important for us to remember that each person who is reluctant to wear a mask has their own reasons. It’s important for us to express some empathy – to agree with them, yes, masks are hot and inconvenient – and help understand their questions, which you may be able to answer to their satisfaction. There are patients that have legitimate questions and a physician caring about how they feel, can make all the difference.”

Physicians can also get involved with the AMA’s #MaskUp campaign, an effort to normalize mask wearing and debunk myths associated with masks. The campaign includes social media materials, slogans doctors can tweet, and profile pictures they can use on social media. The campaign’s toolkit includes images, videos, and information that physicians can share with patients and the public.

Enforcing strong mask policies at your practice and ensuring all staff are modeling appropriate mask behavior is also important, adds Fincher of the ACP. The college recently issued a policy supporting mask usage in community settings.

If a patient conveys an antimask belief, Fincher suggests not directly challenging the person’s views, but listening to them and offering objective data, discussing the science behind masks, and directing them to credible sources.

“Doctors are used to this. We recommend a lot of things to patients that they don’t want to do,” Fincher said. “If a patient feels attacked, they act defensively. But if you base your explanation in more objective terms with data, numbers, and personalize the risks and benefits of a vaccine, a healthy change in behavior, or a medication, then patients are more likely to hear your concerns and do the right thing. Having a long-term relationship with a trusted physician makes all of these issues much easier to discuss and to implement the best plan for the individual patient.”

This article first appeared on Medscape.com.

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Smallpox Vaccination-Associated Myopericarditis

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Myopericarditis related to a smallpox vaccination often goes unrecognized and untreated because physicians are not routinely screening for vaccination administration.

A renewed effort to vaccinate service members fighting the global war on terrorism has brought new diagnostic challenges. Vaccinations not generally given to the public are routinely given to service members when they deploy to various parts of the world. Examples include anthrax, yellow fever, Japanese encephalitis, rabies, polio, and smallpox. Every vaccination has potential for adverse effects (AEs), which can range from mild to severe life-threatening complications. These AEs often go unrecognized and untreated because physicians are not routinely screening for vaccination administration.

Background

Smallpox (Variola major) was successfully eradicated in 1977 due to worldwide vaccination efforts.1 However, the threat of bioterrorism has renewed mandatory smallpox vaccinations for high-risk individuals, such as active-duty military personnel.1,2 A notable increase in myopericarditis has been reported with the new generation of smallpox vaccination, ACAM2000.3 We present a case of a 27-year-old healthy male who presented with chest pain and diffuse ST segment elevations consistent with myopericarditis after vaccination with ACAM2000.

Case Presentation

A healthy 27-year-old soldier presented to the emergency department with sudden, new onset, sharp-stabbing, substernal chest pain, which was made worse with lying flat and better with leaning forward. Vital signs were unremarkable. He recently enlisted in the US Army and received the smallpox vaccination about 11 days before as part of a routine predeployment checklist. The patient reported he did not have any viral symptoms, such as fever, chills, nausea, vomiting, diarrhea, shortness of breath, sore throat, rhinorrhea, or sputum production. He also reported having no prior illness for the past 3 months, sick contacts at home or work, or recent travel outside the US. He reported no tobacco use, alcohol use, or illicit drug use. The patient’s family history was negative for significant cardiac disease.

A physical examination was unremarkable. The initial laboratory report showed no leukocytosis, anemia, thrombocytopenia, electrolytes derangement, abnormal kidney function, or abnormal liver function tests. Initial troponin was 0.25 ng/mL, erythrocyte sedimentation rate (ESR) was 40 mmol/h and C-reactive protein (CRP) was 120.2 mg/L suggestive of acute inflammation. A urine drug screen was negative. D-dimer was < 0.27. An electrocardiogram (ECG) showed diffuse ST segment elevation (Figure 1). An echocardiogram showed normal left ventricle size, and function with ejection fraction 55 to 60%, normal diastolic dysfunction, and trivial pericardial effusion. Magnetic resonance imaging (MRI) showed increased T2 signal intensity of the myocardium suggestive of myopericarditis (Figure 2). A computed tomography (CT) angiogram of the coronary arteries showed no significant stenosis.



The patient was treated with ibuprofen for 2 weeks and colchicine for 3 months, and his symptoms resolved. He followed up with an appointment in the cardiology clinic 1 month later, and his ESR, CRP, and troponin results were negative. A limited echocardiogram showed ejection fraction 60 to 65%, no regional wall motion abnormalities, normal diastolic function, and resolution of the pericardial effusion.

 

Discussion

Smallpox was a major worldwide cause of mortality; about 30% of those infected died because of smallpox.2,4,5 Due to a worldwide vaccination effort, the World Health Organization declared smallpox was eradicated in 1977.2,4,5 However, despite successful eradication, smallpox is considered a possible bioterrorism target, which prompted a resurgence of mandatory smallpox vaccinations for active-duty personnel.2,5

 

 

Dryvax, a freeze-dried calf lymph smallpox vaccine was used extensively from the 1940s to the 1980s but was replaced in 2008 by ACAM2000, a smallpox vaccine cultured in kidney epithelial cells from African green monkeys.3,5 Myopericarditis was rarely associated with the Dryvax, with only 5 cases reported from 1955 to 1986 after millions of doses of vaccines were administered; however, in 230,734 administered ACAM2000 doses, 18 cases of myopericarditis (incidence, 7.8 per 100,000) were reported during a surveillance study in 2002 and 2003.3,5

Myopericarditis presents with a wide variety of symptoms, such as chest pain, palpitations, chills, shortness of breath, and fever.6,7 Mainstay diagnostic criteria include ECG findings consistent with myopericarditis (such as diffuse ST segment elevations) and elevated cardiac biomarkers (elevated troponins).5-7 An echocardiogram can be helpful in diagnosis, as most cases will not have regional wall motion abnormalities (to distinguish against coronary artery disease).5-7 MRI with diffuse enhancement of the myocardium can be helpful in diagnosis.5,6 The gold standard for diagnosis is an endomyocardial biopsy, which carries a significant risk of complications and is not routinely performed to diagnose myopericarditis.5,6 US military smallpox vaccination data showed that the onset of vaccine-associated myopericarditis averaged (SD) 10.4 (3.6) days after vaccination.5

Vaccine-associated myopericarditis treatment is focused on decreasing inflammation.5,6 Nonsteroidal anti-inflammatory drugs are advised for about 2 weeks with cessation of intensive cardiac activities for between 4 and 6 weeks due to risks of congestive heart failure and fatal cardiac arrhythmias.5,6

 

Conclusions

Since the September 11 attacks, the US needs to be continually prepared for potential terrorism on American soil and abroad. The threat of bioterrorism has renewed efforts to vaccinate or revaccinate American service members deployed to high-risk regions. These vaccinations put them at risk for vaccination-induced complications that can range from mild fever to life-threatening complications.

References

1. Bruner DI, Butler BS. Smallpox vaccination-associated myopericarditis is more common with the newest smallpox vaccine. J Emerg Med. 2014;46(3):e85-e87. doi:10.1016/j.jemermed.2013.06.001

2. Halsell JS, Riddle JR, Atwood JE, et al. Myopericarditis following smallpox vaccination among vaccinia-naive US military personnel. JAMA. 2003;289(24):3283-3289. doi:10.1001/jama.289.24.3283

3. Nalca A, Zumbrun EE. ACAM2000: the new smallpox vaccine for United States Strategic National Stockpile. Drug Des Devel Ther. 2010;4:71-79. doi:10.2147/dddt.s3687

4. Wollenberg A, Engler R. Smallpox, vaccination and adverse reactions to smallpox vaccine. Curr Opin Allergy Clin Immunol. 2004;4(4):271-275. doi:10.1097/01.all.0000136758.66442.28

5. Cassimatis DC, Atwood JE, Engler RM, Linz PE, Grabenstein JD, Vernalis MN. Smallpox vaccination and myopericarditis: a clinical review. J Am Coll Cardiol. 2004;43(9):1503-1510. doi:10.1016/j.jacc.2003.11.053

6. Sharma U, Tak T. A report of 2 cases of myopericarditis after Vaccinia virus (smallpox) immunization. WMJ. 2011;110(6):291-294.

7. Sarkisian SA, Hand G, Rivera VM, Smith M, Miller JA. A case series of smallpox vaccination-associated myopericarditis: effects on safety and readiness of the active duty soldier. Mil Med. 2019;184(1-2):e280-e283. doi:10.1093/milmed/usy159

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The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the US Government, or any of its agencies.

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Myopericarditis related to a smallpox vaccination often goes unrecognized and untreated because physicians are not routinely screening for vaccination administration.
Myopericarditis related to a smallpox vaccination often goes unrecognized and untreated because physicians are not routinely screening for vaccination administration.

A renewed effort to vaccinate service members fighting the global war on terrorism has brought new diagnostic challenges. Vaccinations not generally given to the public are routinely given to service members when they deploy to various parts of the world. Examples include anthrax, yellow fever, Japanese encephalitis, rabies, polio, and smallpox. Every vaccination has potential for adverse effects (AEs), which can range from mild to severe life-threatening complications. These AEs often go unrecognized and untreated because physicians are not routinely screening for vaccination administration.

Background

Smallpox (Variola major) was successfully eradicated in 1977 due to worldwide vaccination efforts.1 However, the threat of bioterrorism has renewed mandatory smallpox vaccinations for high-risk individuals, such as active-duty military personnel.1,2 A notable increase in myopericarditis has been reported with the new generation of smallpox vaccination, ACAM2000.3 We present a case of a 27-year-old healthy male who presented with chest pain and diffuse ST segment elevations consistent with myopericarditis after vaccination with ACAM2000.

Case Presentation

A healthy 27-year-old soldier presented to the emergency department with sudden, new onset, sharp-stabbing, substernal chest pain, which was made worse with lying flat and better with leaning forward. Vital signs were unremarkable. He recently enlisted in the US Army and received the smallpox vaccination about 11 days before as part of a routine predeployment checklist. The patient reported he did not have any viral symptoms, such as fever, chills, nausea, vomiting, diarrhea, shortness of breath, sore throat, rhinorrhea, or sputum production. He also reported having no prior illness for the past 3 months, sick contacts at home or work, or recent travel outside the US. He reported no tobacco use, alcohol use, or illicit drug use. The patient’s family history was negative for significant cardiac disease.

A physical examination was unremarkable. The initial laboratory report showed no leukocytosis, anemia, thrombocytopenia, electrolytes derangement, abnormal kidney function, or abnormal liver function tests. Initial troponin was 0.25 ng/mL, erythrocyte sedimentation rate (ESR) was 40 mmol/h and C-reactive protein (CRP) was 120.2 mg/L suggestive of acute inflammation. A urine drug screen was negative. D-dimer was < 0.27. An electrocardiogram (ECG) showed diffuse ST segment elevation (Figure 1). An echocardiogram showed normal left ventricle size, and function with ejection fraction 55 to 60%, normal diastolic dysfunction, and trivial pericardial effusion. Magnetic resonance imaging (MRI) showed increased T2 signal intensity of the myocardium suggestive of myopericarditis (Figure 2). A computed tomography (CT) angiogram of the coronary arteries showed no significant stenosis.



The patient was treated with ibuprofen for 2 weeks and colchicine for 3 months, and his symptoms resolved. He followed up with an appointment in the cardiology clinic 1 month later, and his ESR, CRP, and troponin results were negative. A limited echocardiogram showed ejection fraction 60 to 65%, no regional wall motion abnormalities, normal diastolic function, and resolution of the pericardial effusion.

 

Discussion

Smallpox was a major worldwide cause of mortality; about 30% of those infected died because of smallpox.2,4,5 Due to a worldwide vaccination effort, the World Health Organization declared smallpox was eradicated in 1977.2,4,5 However, despite successful eradication, smallpox is considered a possible bioterrorism target, which prompted a resurgence of mandatory smallpox vaccinations for active-duty personnel.2,5

 

 

Dryvax, a freeze-dried calf lymph smallpox vaccine was used extensively from the 1940s to the 1980s but was replaced in 2008 by ACAM2000, a smallpox vaccine cultured in kidney epithelial cells from African green monkeys.3,5 Myopericarditis was rarely associated with the Dryvax, with only 5 cases reported from 1955 to 1986 after millions of doses of vaccines were administered; however, in 230,734 administered ACAM2000 doses, 18 cases of myopericarditis (incidence, 7.8 per 100,000) were reported during a surveillance study in 2002 and 2003.3,5

Myopericarditis presents with a wide variety of symptoms, such as chest pain, palpitations, chills, shortness of breath, and fever.6,7 Mainstay diagnostic criteria include ECG findings consistent with myopericarditis (such as diffuse ST segment elevations) and elevated cardiac biomarkers (elevated troponins).5-7 An echocardiogram can be helpful in diagnosis, as most cases will not have regional wall motion abnormalities (to distinguish against coronary artery disease).5-7 MRI with diffuse enhancement of the myocardium can be helpful in diagnosis.5,6 The gold standard for diagnosis is an endomyocardial biopsy, which carries a significant risk of complications and is not routinely performed to diagnose myopericarditis.5,6 US military smallpox vaccination data showed that the onset of vaccine-associated myopericarditis averaged (SD) 10.4 (3.6) days after vaccination.5

Vaccine-associated myopericarditis treatment is focused on decreasing inflammation.5,6 Nonsteroidal anti-inflammatory drugs are advised for about 2 weeks with cessation of intensive cardiac activities for between 4 and 6 weeks due to risks of congestive heart failure and fatal cardiac arrhythmias.5,6

 

Conclusions

Since the September 11 attacks, the US needs to be continually prepared for potential terrorism on American soil and abroad. The threat of bioterrorism has renewed efforts to vaccinate or revaccinate American service members deployed to high-risk regions. These vaccinations put them at risk for vaccination-induced complications that can range from mild fever to life-threatening complications.

A renewed effort to vaccinate service members fighting the global war on terrorism has brought new diagnostic challenges. Vaccinations not generally given to the public are routinely given to service members when they deploy to various parts of the world. Examples include anthrax, yellow fever, Japanese encephalitis, rabies, polio, and smallpox. Every vaccination has potential for adverse effects (AEs), which can range from mild to severe life-threatening complications. These AEs often go unrecognized and untreated because physicians are not routinely screening for vaccination administration.

Background

Smallpox (Variola major) was successfully eradicated in 1977 due to worldwide vaccination efforts.1 However, the threat of bioterrorism has renewed mandatory smallpox vaccinations for high-risk individuals, such as active-duty military personnel.1,2 A notable increase in myopericarditis has been reported with the new generation of smallpox vaccination, ACAM2000.3 We present a case of a 27-year-old healthy male who presented with chest pain and diffuse ST segment elevations consistent with myopericarditis after vaccination with ACAM2000.

Case Presentation

A healthy 27-year-old soldier presented to the emergency department with sudden, new onset, sharp-stabbing, substernal chest pain, which was made worse with lying flat and better with leaning forward. Vital signs were unremarkable. He recently enlisted in the US Army and received the smallpox vaccination about 11 days before as part of a routine predeployment checklist. The patient reported he did not have any viral symptoms, such as fever, chills, nausea, vomiting, diarrhea, shortness of breath, sore throat, rhinorrhea, or sputum production. He also reported having no prior illness for the past 3 months, sick contacts at home or work, or recent travel outside the US. He reported no tobacco use, alcohol use, or illicit drug use. The patient’s family history was negative for significant cardiac disease.

A physical examination was unremarkable. The initial laboratory report showed no leukocytosis, anemia, thrombocytopenia, electrolytes derangement, abnormal kidney function, or abnormal liver function tests. Initial troponin was 0.25 ng/mL, erythrocyte sedimentation rate (ESR) was 40 mmol/h and C-reactive protein (CRP) was 120.2 mg/L suggestive of acute inflammation. A urine drug screen was negative. D-dimer was < 0.27. An electrocardiogram (ECG) showed diffuse ST segment elevation (Figure 1). An echocardiogram showed normal left ventricle size, and function with ejection fraction 55 to 60%, normal diastolic dysfunction, and trivial pericardial effusion. Magnetic resonance imaging (MRI) showed increased T2 signal intensity of the myocardium suggestive of myopericarditis (Figure 2). A computed tomography (CT) angiogram of the coronary arteries showed no significant stenosis.



The patient was treated with ibuprofen for 2 weeks and colchicine for 3 months, and his symptoms resolved. He followed up with an appointment in the cardiology clinic 1 month later, and his ESR, CRP, and troponin results were negative. A limited echocardiogram showed ejection fraction 60 to 65%, no regional wall motion abnormalities, normal diastolic function, and resolution of the pericardial effusion.

 

Discussion

Smallpox was a major worldwide cause of mortality; about 30% of those infected died because of smallpox.2,4,5 Due to a worldwide vaccination effort, the World Health Organization declared smallpox was eradicated in 1977.2,4,5 However, despite successful eradication, smallpox is considered a possible bioterrorism target, which prompted a resurgence of mandatory smallpox vaccinations for active-duty personnel.2,5

 

 

Dryvax, a freeze-dried calf lymph smallpox vaccine was used extensively from the 1940s to the 1980s but was replaced in 2008 by ACAM2000, a smallpox vaccine cultured in kidney epithelial cells from African green monkeys.3,5 Myopericarditis was rarely associated with the Dryvax, with only 5 cases reported from 1955 to 1986 after millions of doses of vaccines were administered; however, in 230,734 administered ACAM2000 doses, 18 cases of myopericarditis (incidence, 7.8 per 100,000) were reported during a surveillance study in 2002 and 2003.3,5

Myopericarditis presents with a wide variety of symptoms, such as chest pain, palpitations, chills, shortness of breath, and fever.6,7 Mainstay diagnostic criteria include ECG findings consistent with myopericarditis (such as diffuse ST segment elevations) and elevated cardiac biomarkers (elevated troponins).5-7 An echocardiogram can be helpful in diagnosis, as most cases will not have regional wall motion abnormalities (to distinguish against coronary artery disease).5-7 MRI with diffuse enhancement of the myocardium can be helpful in diagnosis.5,6 The gold standard for diagnosis is an endomyocardial biopsy, which carries a significant risk of complications and is not routinely performed to diagnose myopericarditis.5,6 US military smallpox vaccination data showed that the onset of vaccine-associated myopericarditis averaged (SD) 10.4 (3.6) days after vaccination.5

Vaccine-associated myopericarditis treatment is focused on decreasing inflammation.5,6 Nonsteroidal anti-inflammatory drugs are advised for about 2 weeks with cessation of intensive cardiac activities for between 4 and 6 weeks due to risks of congestive heart failure and fatal cardiac arrhythmias.5,6

 

Conclusions

Since the September 11 attacks, the US needs to be continually prepared for potential terrorism on American soil and abroad. The threat of bioterrorism has renewed efforts to vaccinate or revaccinate American service members deployed to high-risk regions. These vaccinations put them at risk for vaccination-induced complications that can range from mild fever to life-threatening complications.

References

1. Bruner DI, Butler BS. Smallpox vaccination-associated myopericarditis is more common with the newest smallpox vaccine. J Emerg Med. 2014;46(3):e85-e87. doi:10.1016/j.jemermed.2013.06.001

2. Halsell JS, Riddle JR, Atwood JE, et al. Myopericarditis following smallpox vaccination among vaccinia-naive US military personnel. JAMA. 2003;289(24):3283-3289. doi:10.1001/jama.289.24.3283

3. Nalca A, Zumbrun EE. ACAM2000: the new smallpox vaccine for United States Strategic National Stockpile. Drug Des Devel Ther. 2010;4:71-79. doi:10.2147/dddt.s3687

4. Wollenberg A, Engler R. Smallpox, vaccination and adverse reactions to smallpox vaccine. Curr Opin Allergy Clin Immunol. 2004;4(4):271-275. doi:10.1097/01.all.0000136758.66442.28

5. Cassimatis DC, Atwood JE, Engler RM, Linz PE, Grabenstein JD, Vernalis MN. Smallpox vaccination and myopericarditis: a clinical review. J Am Coll Cardiol. 2004;43(9):1503-1510. doi:10.1016/j.jacc.2003.11.053

6. Sharma U, Tak T. A report of 2 cases of myopericarditis after Vaccinia virus (smallpox) immunization. WMJ. 2011;110(6):291-294.

7. Sarkisian SA, Hand G, Rivera VM, Smith M, Miller JA. A case series of smallpox vaccination-associated myopericarditis: effects on safety and readiness of the active duty soldier. Mil Med. 2019;184(1-2):e280-e283. doi:10.1093/milmed/usy159

References

1. Bruner DI, Butler BS. Smallpox vaccination-associated myopericarditis is more common with the newest smallpox vaccine. J Emerg Med. 2014;46(3):e85-e87. doi:10.1016/j.jemermed.2013.06.001

2. Halsell JS, Riddle JR, Atwood JE, et al. Myopericarditis following smallpox vaccination among vaccinia-naive US military personnel. JAMA. 2003;289(24):3283-3289. doi:10.1001/jama.289.24.3283

3. Nalca A, Zumbrun EE. ACAM2000: the new smallpox vaccine for United States Strategic National Stockpile. Drug Des Devel Ther. 2010;4:71-79. doi:10.2147/dddt.s3687

4. Wollenberg A, Engler R. Smallpox, vaccination and adverse reactions to smallpox vaccine. Curr Opin Allergy Clin Immunol. 2004;4(4):271-275. doi:10.1097/01.all.0000136758.66442.28

5. Cassimatis DC, Atwood JE, Engler RM, Linz PE, Grabenstein JD, Vernalis MN. Smallpox vaccination and myopericarditis: a clinical review. J Am Coll Cardiol. 2004;43(9):1503-1510. doi:10.1016/j.jacc.2003.11.053

6. Sharma U, Tak T. A report of 2 cases of myopericarditis after Vaccinia virus (smallpox) immunization. WMJ. 2011;110(6):291-294.

7. Sarkisian SA, Hand G, Rivera VM, Smith M, Miller JA. A case series of smallpox vaccination-associated myopericarditis: effects on safety and readiness of the active duty soldier. Mil Med. 2019;184(1-2):e280-e283. doi:10.1093/milmed/usy159

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Coronavirus vaccine: The contenders, the potential controversy

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References

  1. CDC. Coronavirus Disease 2019 (COVID-19): Cases in the US. www.cdc.gov/coronavirus/2019-ncov/cases-updates/cases-in-us.html. Accessed August 18, 2020.
  2. US Department of Health and Human Services. Fact Sheet: explaining Operation Warp Speed. www.hhs.gov/coronavirus/explaining-operation-warp-speed/index.html. Accessed August 18, 2020.
  3. O’Callahan KP, Blatz AM, Offit PA. Developing a SARS-CoV-2 vaccine at warp speed. JAMA. 2020;324:437-438.
  4. Pardi N, Hogan MJ, Porter FW, et al. mRNA vaccines—a new era in vaccinology. Nat Rev Drug Discov. 2018;17:261-279.
  5. Lurie N, Sharfstein JM, Goodman JL. The development of COVID-19 vaccines: safeguards needed [commentary]. JAMA. 2020;324:439-440.
  6. Salman DA, Akhtar A, Mergler MJ, et al; H1N1 Working Group of Federal Immunization Safety Task Force. Immunization safety monitoring systems for the 2009 H1N1 monovalent influenza vaccination program. Pediatrics. 2011;127(suppl 1):S78-S86.
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The speaker does contract work for the Centers for Disease Control and Prevention and the Advisory Committee on Immunization Practices, helping them assess the effectiveness and safety of vaccines.

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The speaker does contract work for the Centers for Disease Control and Prevention and the Advisory Committee on Immunization Practices, helping them assess the effectiveness and safety of vaccines.

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Doug Campos-Outcalt, MD, MPA, is a clinical professor at the University of Arizona College of Medicine, a senior lecturer with the University of Arizona College of Public Health, and a member of the US Community Preventive Services Task Force. He’s also an assistant editor at The Journal of Family Practice.

The speaker does contract work for the Centers for Disease Control and Prevention and the Advisory Committee on Immunization Practices, helping them assess the effectiveness and safety of vaccines.

References

  1. CDC. Coronavirus Disease 2019 (COVID-19): Cases in the US. www.cdc.gov/coronavirus/2019-ncov/cases-updates/cases-in-us.html. Accessed August 18, 2020.
  2. US Department of Health and Human Services. Fact Sheet: explaining Operation Warp Speed. www.hhs.gov/coronavirus/explaining-operation-warp-speed/index.html. Accessed August 18, 2020.
  3. O’Callahan KP, Blatz AM, Offit PA. Developing a SARS-CoV-2 vaccine at warp speed. JAMA. 2020;324:437-438.
  4. Pardi N, Hogan MJ, Porter FW, et al. mRNA vaccines—a new era in vaccinology. Nat Rev Drug Discov. 2018;17:261-279.
  5. Lurie N, Sharfstein JM, Goodman JL. The development of COVID-19 vaccines: safeguards needed [commentary]. JAMA. 2020;324:439-440.
  6. Salman DA, Akhtar A, Mergler MJ, et al; H1N1 Working Group of Federal Immunization Safety Task Force. Immunization safety monitoring systems for the 2009 H1N1 monovalent influenza vaccination program. Pediatrics. 2011;127(suppl 1):S78-S86.

References

  1. CDC. Coronavirus Disease 2019 (COVID-19): Cases in the US. www.cdc.gov/coronavirus/2019-ncov/cases-updates/cases-in-us.html. Accessed August 18, 2020.
  2. US Department of Health and Human Services. Fact Sheet: explaining Operation Warp Speed. www.hhs.gov/coronavirus/explaining-operation-warp-speed/index.html. Accessed August 18, 2020.
  3. O’Callahan KP, Blatz AM, Offit PA. Developing a SARS-CoV-2 vaccine at warp speed. JAMA. 2020;324:437-438.
  4. Pardi N, Hogan MJ, Porter FW, et al. mRNA vaccines—a new era in vaccinology. Nat Rev Drug Discov. 2018;17:261-279.
  5. Lurie N, Sharfstein JM, Goodman JL. The development of COVID-19 vaccines: safeguards needed [commentary]. JAMA. 2020;324:439-440.
  6. Salman DA, Akhtar A, Mergler MJ, et al; H1N1 Working Group of Federal Immunization Safety Task Force. Immunization safety monitoring systems for the 2009 H1N1 monovalent influenza vaccination program. Pediatrics. 2011;127(suppl 1):S78-S86.
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COVID-19 vaccine supply will be limited at first, ACIP says

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Two COVID-19 vaccines are entering phase 3 clinical trials, according to data presented at a virtual meeting of vaccine and infectious disease experts.

The Advisory Committee on Immunization Practices (ACIP) of the Centers for Disease Control and Prevention (CDC) yesterday held its third meeting this summer to discuss the vaccines and plan how initial vaccines will be allocated, inasmuch as supplies will likely be limited at first. Vaccines are expected to be more available as production ramps up and as more than one vaccine become available, but vaccine allocation initially will need to take place in phases.

Considerations include first getting the vaccine to individuals who need it the most, such as healthcare personnel and essential workers, as well as those at higher risk for severe illness or death, including the elderly, those with underlying conditions, and certain racial and ethnic minorities. Other factors include storage requirements that might be difficult to meet in certain settings and the fact that both vaccines must be given in two doses.

Vaccine allocation models

The group presented two possible models for allocating initial vaccine supplies.

The first population model considers risk status within each age group on the basis of underlying health conditions and occupational group, with priority given to healthcare personnel (paid or unpaid) and essential workers. The model considers partial reopening and social distancing, expected vaccine efficacy, prevaccination immunity, mortality, and the direct and indirect benefits of vaccination.

In this model, COVID-19 infections and deaths were reduced when healthcare personnel, essential workers, or adults with underlying conditions were vaccinated. There were smaller differences between the groups with respect to the impact of vaccination. Declines in infections were “more modest” and declines in deaths were greater when adults aged 65 years and older were vaccinated in comparison with other age groups.

The second model focused on vaccination of nursing home healthcare personnel and residents. Vaccinating nursing home healthcare personnel reduced infections and deaths more than vaccinating nursing home residents.

In settings such as long-term care facilities and correction facilities, where people gather in groups, cases increase first among staff. The vaccine working group suggests that vaccinating staff may also benefit individuals living in those facilities.

The working group expects that from 15 to 45 million doses of vaccine will be available by the end of December, depending on which vaccine is approved by then or whether both are approved.

Supplies won’t be nearly enough to vaccinate everyone: There are approximately 17 to 20 million healthcare workers in the United States and 60 to 80 million essential workers who do not work in healthcare. More than 100 million adults have underlying medical conditions that put them at higher risk for hospitalization and death, such as obesity, cardiovascular disease, diabetes, and chronic obstructive pulmonary disease. And approximately 53 million adults are aged 65 years or older.

The group reviewed promising early data for two vaccines under development.

The mRNA-1273 vaccine, made by Moderna with support from two federal agencies, is moving into phase 3 clinical trials – enrollment into the COVID-19 Efficacy and Safety (COVE) study is ongoing, according to Jacqueline M. Miller, MD, senior vice president and therapeutic area head of infectious diseases. The study’s primary objective will be to determine whether two doses can prevent symptomatic COVID-19, according to an NIH news release.

A second mRNA vaccine, BNT 162b2, made by Pfizer and BioNTech, is entering phase 2/3 trials. Nearly 20% of people enrolled are Black or Hispanic persons, and 4% are Asian persons. The team is also trying to recruit Native American participants, Nicholas Kitchin, MD, senior director in Pfizer’s vaccine clinical research and development group, said in a presentation to the advisory committee.

 

 

‘Ultra-cold’ temperatures required for storage

Both vaccines require storage at lower temperatures than is usually needed for vaccines. One vaccine must be distributed and stored at -20° C, and the other must be stored, distributed, and handled at -70° C.

This issue stands out most to ACIP Chair Jose Romero, MD. He says the “ultra-cold” temperatures required for storage and transportation of the vaccines will be a “significant problem” for those in rural areas.

High-risk populations such as meat processors and agricultural workers “may have to wait until we have a more stable vaccine that can be transported and delivered more or less at room temperature,” Romero explained. He is the chief medical officer at the Arkansas Department of Health and is a professor of pediatrics and pediatric infectious diseases at the University of Arkansas for Medical Sciences, both in Little Rock.

The advisory committee will meet again on September 22. At that time, they’ll vote on an interim plan for prioritization of the first COVID-19 vaccine.

This article first appeared on Medscape.com.

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Two COVID-19 vaccines are entering phase 3 clinical trials, according to data presented at a virtual meeting of vaccine and infectious disease experts.

The Advisory Committee on Immunization Practices (ACIP) of the Centers for Disease Control and Prevention (CDC) yesterday held its third meeting this summer to discuss the vaccines and plan how initial vaccines will be allocated, inasmuch as supplies will likely be limited at first. Vaccines are expected to be more available as production ramps up and as more than one vaccine become available, but vaccine allocation initially will need to take place in phases.

Considerations include first getting the vaccine to individuals who need it the most, such as healthcare personnel and essential workers, as well as those at higher risk for severe illness or death, including the elderly, those with underlying conditions, and certain racial and ethnic minorities. Other factors include storage requirements that might be difficult to meet in certain settings and the fact that both vaccines must be given in two doses.

Vaccine allocation models

The group presented two possible models for allocating initial vaccine supplies.

The first population model considers risk status within each age group on the basis of underlying health conditions and occupational group, with priority given to healthcare personnel (paid or unpaid) and essential workers. The model considers partial reopening and social distancing, expected vaccine efficacy, prevaccination immunity, mortality, and the direct and indirect benefits of vaccination.

In this model, COVID-19 infections and deaths were reduced when healthcare personnel, essential workers, or adults with underlying conditions were vaccinated. There were smaller differences between the groups with respect to the impact of vaccination. Declines in infections were “more modest” and declines in deaths were greater when adults aged 65 years and older were vaccinated in comparison with other age groups.

The second model focused on vaccination of nursing home healthcare personnel and residents. Vaccinating nursing home healthcare personnel reduced infections and deaths more than vaccinating nursing home residents.

In settings such as long-term care facilities and correction facilities, where people gather in groups, cases increase first among staff. The vaccine working group suggests that vaccinating staff may also benefit individuals living in those facilities.

The working group expects that from 15 to 45 million doses of vaccine will be available by the end of December, depending on which vaccine is approved by then or whether both are approved.

Supplies won’t be nearly enough to vaccinate everyone: There are approximately 17 to 20 million healthcare workers in the United States and 60 to 80 million essential workers who do not work in healthcare. More than 100 million adults have underlying medical conditions that put them at higher risk for hospitalization and death, such as obesity, cardiovascular disease, diabetes, and chronic obstructive pulmonary disease. And approximately 53 million adults are aged 65 years or older.

The group reviewed promising early data for two vaccines under development.

The mRNA-1273 vaccine, made by Moderna with support from two federal agencies, is moving into phase 3 clinical trials – enrollment into the COVID-19 Efficacy and Safety (COVE) study is ongoing, according to Jacqueline M. Miller, MD, senior vice president and therapeutic area head of infectious diseases. The study’s primary objective will be to determine whether two doses can prevent symptomatic COVID-19, according to an NIH news release.

A second mRNA vaccine, BNT 162b2, made by Pfizer and BioNTech, is entering phase 2/3 trials. Nearly 20% of people enrolled are Black or Hispanic persons, and 4% are Asian persons. The team is also trying to recruit Native American participants, Nicholas Kitchin, MD, senior director in Pfizer’s vaccine clinical research and development group, said in a presentation to the advisory committee.

 

 

‘Ultra-cold’ temperatures required for storage

Both vaccines require storage at lower temperatures than is usually needed for vaccines. One vaccine must be distributed and stored at -20° C, and the other must be stored, distributed, and handled at -70° C.

This issue stands out most to ACIP Chair Jose Romero, MD. He says the “ultra-cold” temperatures required for storage and transportation of the vaccines will be a “significant problem” for those in rural areas.

High-risk populations such as meat processors and agricultural workers “may have to wait until we have a more stable vaccine that can be transported and delivered more or less at room temperature,” Romero explained. He is the chief medical officer at the Arkansas Department of Health and is a professor of pediatrics and pediatric infectious diseases at the University of Arkansas for Medical Sciences, both in Little Rock.

The advisory committee will meet again on September 22. At that time, they’ll vote on an interim plan for prioritization of the first COVID-19 vaccine.

This article first appeared on Medscape.com.

 

Two COVID-19 vaccines are entering phase 3 clinical trials, according to data presented at a virtual meeting of vaccine and infectious disease experts.

The Advisory Committee on Immunization Practices (ACIP) of the Centers for Disease Control and Prevention (CDC) yesterday held its third meeting this summer to discuss the vaccines and plan how initial vaccines will be allocated, inasmuch as supplies will likely be limited at first. Vaccines are expected to be more available as production ramps up and as more than one vaccine become available, but vaccine allocation initially will need to take place in phases.

Considerations include first getting the vaccine to individuals who need it the most, such as healthcare personnel and essential workers, as well as those at higher risk for severe illness or death, including the elderly, those with underlying conditions, and certain racial and ethnic minorities. Other factors include storage requirements that might be difficult to meet in certain settings and the fact that both vaccines must be given in two doses.

Vaccine allocation models

The group presented two possible models for allocating initial vaccine supplies.

The first population model considers risk status within each age group on the basis of underlying health conditions and occupational group, with priority given to healthcare personnel (paid or unpaid) and essential workers. The model considers partial reopening and social distancing, expected vaccine efficacy, prevaccination immunity, mortality, and the direct and indirect benefits of vaccination.

In this model, COVID-19 infections and deaths were reduced when healthcare personnel, essential workers, or adults with underlying conditions were vaccinated. There were smaller differences between the groups with respect to the impact of vaccination. Declines in infections were “more modest” and declines in deaths were greater when adults aged 65 years and older were vaccinated in comparison with other age groups.

The second model focused on vaccination of nursing home healthcare personnel and residents. Vaccinating nursing home healthcare personnel reduced infections and deaths more than vaccinating nursing home residents.

In settings such as long-term care facilities and correction facilities, where people gather in groups, cases increase first among staff. The vaccine working group suggests that vaccinating staff may also benefit individuals living in those facilities.

The working group expects that from 15 to 45 million doses of vaccine will be available by the end of December, depending on which vaccine is approved by then or whether both are approved.

Supplies won’t be nearly enough to vaccinate everyone: There are approximately 17 to 20 million healthcare workers in the United States and 60 to 80 million essential workers who do not work in healthcare. More than 100 million adults have underlying medical conditions that put them at higher risk for hospitalization and death, such as obesity, cardiovascular disease, diabetes, and chronic obstructive pulmonary disease. And approximately 53 million adults are aged 65 years or older.

The group reviewed promising early data for two vaccines under development.

The mRNA-1273 vaccine, made by Moderna with support from two federal agencies, is moving into phase 3 clinical trials – enrollment into the COVID-19 Efficacy and Safety (COVE) study is ongoing, according to Jacqueline M. Miller, MD, senior vice president and therapeutic area head of infectious diseases. The study’s primary objective will be to determine whether two doses can prevent symptomatic COVID-19, according to an NIH news release.

A second mRNA vaccine, BNT 162b2, made by Pfizer and BioNTech, is entering phase 2/3 trials. Nearly 20% of people enrolled are Black or Hispanic persons, and 4% are Asian persons. The team is also trying to recruit Native American participants, Nicholas Kitchin, MD, senior director in Pfizer’s vaccine clinical research and development group, said in a presentation to the advisory committee.

 

 

‘Ultra-cold’ temperatures required for storage

Both vaccines require storage at lower temperatures than is usually needed for vaccines. One vaccine must be distributed and stored at -20° C, and the other must be stored, distributed, and handled at -70° C.

This issue stands out most to ACIP Chair Jose Romero, MD. He says the “ultra-cold” temperatures required for storage and transportation of the vaccines will be a “significant problem” for those in rural areas.

High-risk populations such as meat processors and agricultural workers “may have to wait until we have a more stable vaccine that can be transported and delivered more or less at room temperature,” Romero explained. He is the chief medical officer at the Arkansas Department of Health and is a professor of pediatrics and pediatric infectious diseases at the University of Arkansas for Medical Sciences, both in Little Rock.

The advisory committee will meet again on September 22. At that time, they’ll vote on an interim plan for prioritization of the first COVID-19 vaccine.

This article first appeared on Medscape.com.

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