Infectious Diseases

Many emergency room workers remove their clothes as soon as they get home – some before they even enter. Does that mean you should worry about COVID-19 transmission from your own clothing, towels, and other textiles?

While researchers found that the virus can remain on some surfaces for up to 72 hours, the study didn’t include fabric. “So far, evidence suggests that it’s harder to catch the virus from a soft surface (such as fabric) than it is from frequently touched hard surfaces like elevator buttons or door handles,” wrote Lisa Maragakis, MD, senior director of infection prevention at the Johns Hopkins Health System.

One thing experts do know: At this point, transmission happens mostly through close contact, not from touching hard surfaces or clothing. The best thing you can do to protect yourself is to stay home. And if you do go out, practice social distancing.

“This is a very powerful weapon,” Robert Redfield, MD, director of the CDC, told National Public Radio. “This virus cannot go from person to person that easily. It needs us to be close. It needs us to be within 6 feet.”

And don’t forget to use hand sanitizer while you’re out, avoid touching your face, and wash your hands when you get home.

If nobody in your home has symptoms of COVID-19 and you’re all staying home, the CDC recommends routine cleaning, including laundry. Even if you go out and maintain good social distancing – at least 6 feet from anyone who’s not in your household – you should be fine.

But if you suspect you got too close for too long, or someone coughed on you, there’s no harm in changing your clothing and washing it right away, especially if there are hard surfaces like buttons and zippers where the virus might linger. Wash your hands again after you put everything into the machine. Dry everything on high, since the virus dies at temperatures above 133 F. File these steps under “abundance of caution”: They’re not necessary, but if it gives you peace of mind, it may be worth it.

Using the laundromat

Got your own washer and dryer? You can just do your laundry. But for those who share a communal laundry room or visit the laundromat, some extra precautions make sense:

• Consider social distancing. Is your building’s laundry room so small that you can’t stand 6 feet away from anyone else? Don’t enter if someone’s already in there. You may want to ask building management to set up a schedule for laundry, to keep everyone safe.
• Sort your laundry before you go, and fold clean laundry at home, to lessen the amount of time you spend there and the number of surfaces you touch, suggests a report in The New York Times.
• Bring sanitizing wipes or hand sanitizer with you to wipe down the machines’ handles and buttons before you use them. Or, since most laundry spaces have a sink, wash your hands with soap right after loading the machines.
• If you have your own cart, use it. A communal cart shouldn’t infect your clothes, but touching it with your hands may transfer the virus to you.
• Don’t touch your face while doing laundry. (You should be getting good at this by now.)
• Don’t hang out in the laundry room or laundromat while your clothes are in the machines. The less time you spend close to others, the better. Step outside, go back to your apartment, or wait in your car.

Courtesy WebMD

If someone is sick

The guidelines change when someone in your household has a confirmed case or symptoms. The CDC recommends:

• Wear disposable gloves when handling dirty laundry, and wash your hands right after you take them off.
• Try not to shake the dirty laundry to avoid sending the virus into the air.
• Follow the manufacturers’ instructions for whatever you’re cleaning, using the warmest water possible. Dry everything completely.
• It’s fine to mix your own laundry in with the sick person’s. And don’t forget to include the laundry bag, or use a disposable garbage bag instead.

Wipe down the hamper, following the appropriate instructions.

This article first appeared on WebMD.

Many emergency room workers remove their clothes as soon as they get home – some before they even enter. Does that mean you should worry about COVID-19 transmission from your own clothing, towels, and other textiles?

While researchers found that the virus can remain on some surfaces for up to 72 hours, the study didn’t include fabric. “So far, evidence suggests that it’s harder to catch the virus from a soft surface (such as fabric) than it is from frequently touched hard surfaces like elevator buttons or door handles,” wrote Lisa Maragakis, MD, senior director of infection prevention at the Johns Hopkins Health System.

One thing experts do know: At this point, transmission happens mostly through close contact, not from touching hard surfaces or clothing. The best thing you can do to protect yourself is to stay home. And if you do go out, practice social distancing.

“This is a very powerful weapon,” Robert Redfield, MD, director of the CDC, told National Public Radio. “This virus cannot go from person to person that easily. It needs us to be close. It needs us to be within 6 feet.”

And don’t forget to use hand sanitizer while you’re out, avoid touching your face, and wash your hands when you get home.

If nobody in your home has symptoms of COVID-19 and you’re all staying home, the CDC recommends routine cleaning, including laundry. Even if you go out and maintain good social distancing – at least 6 feet from anyone who’s not in your household – you should be fine.

But if you suspect you got too close for too long, or someone coughed on you, there’s no harm in changing your clothing and washing it right away, especially if there are hard surfaces like buttons and zippers where the virus might linger. Wash your hands again after you put everything into the machine. Dry everything on high, since the virus dies at temperatures above 133 F. File these steps under “abundance of caution”: They’re not necessary, but if it gives you peace of mind, it may be worth it.

Using the laundromat

Got your own washer and dryer? You can just do your laundry. But for those who share a communal laundry room or visit the laundromat, some extra precautions make sense:

• Consider social distancing. Is your building’s laundry room so small that you can’t stand 6 feet away from anyone else? Don’t enter if someone’s already in there. You may want to ask building management to set up a schedule for laundry, to keep everyone safe.
• Sort your laundry before you go, and fold clean laundry at home, to lessen the amount of time you spend there and the number of surfaces you touch, suggests a report in The New York Times.
• Bring sanitizing wipes or hand sanitizer with you to wipe down the machines’ handles and buttons before you use them. Or, since most laundry spaces have a sink, wash your hands with soap right after loading the machines.
• If you have your own cart, use it. A communal cart shouldn’t infect your clothes, but touching it with your hands may transfer the virus to you.
• Don’t touch your face while doing laundry. (You should be getting good at this by now.)
• Don’t hang out in the laundry room or laundromat while your clothes are in the machines. The less time you spend close to others, the better. Step outside, go back to your apartment, or wait in your car.

Courtesy WebMD

If someone is sick

The guidelines change when someone in your household has a confirmed case or symptoms. The CDC recommends:

• Wear disposable gloves when handling dirty laundry, and wash your hands right after you take them off.
• Try not to shake the dirty laundry to avoid sending the virus into the air.
• Follow the manufacturers’ instructions for whatever you’re cleaning, using the warmest water possible. Dry everything completely.
• It’s fine to mix your own laundry in with the sick person’s. And don’t forget to include the laundry bag, or use a disposable garbage bag instead.

Wipe down the hamper, following the appropriate instructions.

This article first appeared on WebMD.

Many emergency room workers remove their clothes as soon as they get home – some before they even enter. Does that mean you should worry about COVID-19 transmission from your own clothing, towels, and other textiles?

While researchers found that the virus can remain on some surfaces for up to 72 hours, the study didn’t include fabric. “So far, evidence suggests that it’s harder to catch the virus from a soft surface (such as fabric) than it is from frequently touched hard surfaces like elevator buttons or door handles,” wrote Lisa Maragakis, MD, senior director of infection prevention at the Johns Hopkins Health System.

One thing experts do know: At this point, transmission happens mostly through close contact, not from touching hard surfaces or clothing. The best thing you can do to protect yourself is to stay home. And if you do go out, practice social distancing.

“This is a very powerful weapon,” Robert Redfield, MD, director of the CDC, told National Public Radio. “This virus cannot go from person to person that easily. It needs us to be close. It needs us to be within 6 feet.”

And don’t forget to use hand sanitizer while you’re out, avoid touching your face, and wash your hands when you get home.

If nobody in your home has symptoms of COVID-19 and you’re all staying home, the CDC recommends routine cleaning, including laundry. Even if you go out and maintain good social distancing – at least 6 feet from anyone who’s not in your household – you should be fine.

But if you suspect you got too close for too long, or someone coughed on you, there’s no harm in changing your clothing and washing it right away, especially if there are hard surfaces like buttons and zippers where the virus might linger. Wash your hands again after you put everything into the machine. Dry everything on high, since the virus dies at temperatures above 133 F. File these steps under “abundance of caution”: They’re not necessary, but if it gives you peace of mind, it may be worth it.

Using the laundromat

Got your own washer and dryer? You can just do your laundry. But for those who share a communal laundry room or visit the laundromat, some extra precautions make sense:

• Consider social distancing. Is your building’s laundry room so small that you can’t stand 6 feet away from anyone else? Don’t enter if someone’s already in there. You may want to ask building management to set up a schedule for laundry, to keep everyone safe.
• Sort your laundry before you go, and fold clean laundry at home, to lessen the amount of time you spend there and the number of surfaces you touch, suggests a report in The New York Times.
• Bring sanitizing wipes or hand sanitizer with you to wipe down the machines’ handles and buttons before you use them. Or, since most laundry spaces have a sink, wash your hands with soap right after loading the machines.
• If you have your own cart, use it. A communal cart shouldn’t infect your clothes, but touching it with your hands may transfer the virus to you.
• Don’t touch your face while doing laundry. (You should be getting good at this by now.)
• Don’t hang out in the laundry room or laundromat while your clothes are in the machines. The less time you spend close to others, the better. Step outside, go back to your apartment, or wait in your car.

Courtesy WebMD

If someone is sick

The guidelines change when someone in your household has a confirmed case or symptoms. The CDC recommends:

• Wear disposable gloves when handling dirty laundry, and wash your hands right after you take them off.
• Try not to shake the dirty laundry to avoid sending the virus into the air.
• Follow the manufacturers’ instructions for whatever you’re cleaning, using the warmest water possible. Dry everything completely.
• It’s fine to mix your own laundry in with the sick person’s. And don’t forget to include the laundry bag, or use a disposable garbage bag instead.

Wipe down the hamper, following the appropriate instructions.

This article first appeared on WebMD.

Since the Centers for Disease Control and Prevention (CDC) confirmed the first US case of novel coronavirus infection on January 20, much of the clinical focus has naturally centered on the virus’ prodromal symptoms and severe respiratory effects.

However, US neurologists are now reporting that COVID-19 symptoms may also include encephalopathy, ataxia, and other neurologic signs.

“I am hearing about strokes, ataxia, myelitis, etc,” Stephan Mayer, MD, a neurointensivist in Troy, Michigan, posted on Twitter on March 26.

Other possible signs and symptoms include subtle neurologic deficits, severe fatigue, trigeminal neuralgia, complete/severe anosmia, and myalgia as reported by clinicians who responded to the tweet.

On March 31, the first presumptive case of encephalitis linked to COVID-19 was documented in a 58-year-old woman treated at Henry Ford Health System in Detroit.

Physicians who reported the acute necrotizing hemorrhagic encephalopathy case in the journal Radiology counseled neurologists to suspect the virus in patients presenting with altered levels of consciousness.

Researchers in China also reported the first presumptive case of Guillain-Barre syndrome (GBS) associated with COVID-19. A 61-year-old woman initially presented with signs of the autoimmune neuropathy GBS, including leg weakness, and severe fatigue after returning from Wuhan, China. She did not initially present with the common COVID-19 symptoms of fever, cough, or chest pain.

Her muscle weakness and distal areflexia progressed over time. On day 8, the patient developed more characteristic COVID-19 signs, including ‘ground glass’ lung opacities, dry cough, and fever. She was treated with antivirals, immunoglobulins, and supportive care, recovering slowly until discharge on day 30.

“Our single-case report only suggests a possible association between GBS and SARS-CoV-2 infection. It may or may not have causal relationship. More cases with epidemiological data are necessary,” said senior author Sheng Chen, MD, PhD.

However, “we still suggest physicians who encounter acute GBS patients from pandemic areas protect themselves carefully and test for the virus on admission. If the results are positive, the patient needs to be isolated,” added Dr. Chen, a neurologist at Shanghai Ruijin Hospital and Shanghai Jiao Tong University School of Medicine in China.

Neurologic presentations of COVID-19 “are not common, but could happen,” Dr. Chen added. Headache, muscle weakness, and myalgias have been documented in other patients in China, he said.
 

Early days

Despite this growing number of anecdotal reports and observational data documenting neurologic effects, the majority of patients with COVID-19 do not present with such symptoms.

“Most COVID-19 patients we have seen have a normal neurological presentation. Abnormal neurological findings we have seen include loss of smell and taste sensation, and states of altered mental status including confusion, lethargy, and coma,” said Robert Stevens, MD, who focuses on neuroscience critical care at the Johns Hopkins School of Medicine in Baltimore, Maryland.

Other groups are reporting seizures, spinal cord disease, and brain stem disease. It has been suggested that brain stem dysfunction may account for the loss of hypoxic respiratory drive seen in a subset of patients with severe COVID-19 disease, he added.

However, Dr. Stevens, who plans to track neurologic outcomes in COVID-19 patients, also cautioned that it’s still early and these case reports are preliminary.

“An important caveat is that our knowledge of the different neurological presentations reported in association with COVID-19 is purely descriptive. We know almost nothing about the potential interactions between COVID-19 and the nervous system,” he noted.

He added it’s likely that some of the neurologic phenomena in COVID-19 are not causally related to the virus.

“This is why we have decided to establish a multisite neuro–COVID-19 data registry, so that we can gain epidemiological and mechanistic insight on these phenomena,” he said.

Nevertheless, in an online report February 27 in the Journal of Medical Virology, Yan-Chao Li, MD, and colleagues wrote that “increasing evidence shows that coronaviruses are not always confined to the respiratory tract and that they may also invade the central nervous system, inducing neurological diseases.”

Dr. Li is affiliated with the Department of Histology and Embryology, College of Basic Medical Sciences, Norman Bethune College of Medicine, Jilin University, Changchun, China.
 

A global view

Scientists observed SARS-CoV in the brains of infected people and animals, particularly the brainstem, they noted. Given the similarity of SARS-CoV to SARS-CoV-2, the virus that causes COVID-19, the researchers suggest a similar invasive mechanism could be occurring in some patients.

Although it hasn’t been proven, Dr. Li and colleagues suggest COVID-19 could act beyond receptors in the lungs, traveling via “a synapse‐connected route to the medullary cardiorespiratory center” in the brain. This action, in turn, could add to the acute respiratory failure observed in many people with COVID-19.

Other neurologists tracking and monitoring case reports of neurologic symptoms potentially related to COVID-19 include Dr. Mayer and Amelia Boehme, PhD, MSPH, an epidemiologist at Columbia University specializing in stroke and cardiovascular disease.

Dr. Boehme suggested on Twitter that the neurology community conduct a multicenter study to examine the relationship between the virus and neurologic symptoms/sequelae.

Medscape Medical News interviewed Michel Dib, MD, a neurologist at the Pitié Salpêtrière hospital in Paris, who said primary neurologic presentations of COVID-19 occur rarely – and primarily in older adults. As other clinicians note, these include confusion and disorientation. He also reports cases of encephalitis and one patient who initially presented with epilepsy.

Initial reports also came from neurologists in countries where COVID-19 struck first. For example, stroke, delirium, epileptic seizures and more are being treated by neurologists at the University of Brescia in Italy in a dedicated unit designed to treat both COVID-19 and neurologic syndromes, Alessandro Pezzini, MD, reported in Neurology Today, a publication of the American Academy of Neurology.

Dr. Pezzini noted that the mechanisms behind the observed increase in vascular complications warrant further investigation. He and colleagues are planning a multicenter study in Italy to dive deeper into the central nervous system effects of COVID-19 infection.

Clinicians in China also report neurologic symptoms in some patients. A study of 221 consecutive COVID-19 patients in Wuhan revealed 11 patients developed acute ischemic stroke, one experienced cerebral venous sinus thrombosis, and another experienced cerebral hemorrhage.

Older age and more severe disease were associated with a greater likelihood for cerebrovascular disease, the authors reported.

Drs. Chen and Li have disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

Since the Centers for Disease Control and Prevention (CDC) confirmed the first US case of novel coronavirus infection on January 20, much of the clinical focus has naturally centered on the virus’ prodromal symptoms and severe respiratory effects.

However, US neurologists are now reporting that COVID-19 symptoms may also include encephalopathy, ataxia, and other neurologic signs.

“I am hearing about strokes, ataxia, myelitis, etc,” Stephan Mayer, MD, a neurointensivist in Troy, Michigan, posted on Twitter on March 26.

Other possible signs and symptoms include subtle neurologic deficits, severe fatigue, trigeminal neuralgia, complete/severe anosmia, and myalgia as reported by clinicians who responded to the tweet.

On March 31, the first presumptive case of encephalitis linked to COVID-19 was documented in a 58-year-old woman treated at Henry Ford Health System in Detroit.

Physicians who reported the acute necrotizing hemorrhagic encephalopathy case in the journal Radiology counseled neurologists to suspect the virus in patients presenting with altered levels of consciousness.

Researchers in China also reported the first presumptive case of Guillain-Barre syndrome (GBS) associated with COVID-19. A 61-year-old woman initially presented with signs of the autoimmune neuropathy GBS, including leg weakness, and severe fatigue after returning from Wuhan, China. She did not initially present with the common COVID-19 symptoms of fever, cough, or chest pain.

Her muscle weakness and distal areflexia progressed over time. On day 8, the patient developed more characteristic COVID-19 signs, including ‘ground glass’ lung opacities, dry cough, and fever. She was treated with antivirals, immunoglobulins, and supportive care, recovering slowly until discharge on day 30.

“Our single-case report only suggests a possible association between GBS and SARS-CoV-2 infection. It may or may not have causal relationship. More cases with epidemiological data are necessary,” said senior author Sheng Chen, MD, PhD.

However, “we still suggest physicians who encounter acute GBS patients from pandemic areas protect themselves carefully and test for the virus on admission. If the results are positive, the patient needs to be isolated,” added Dr. Chen, a neurologist at Shanghai Ruijin Hospital and Shanghai Jiao Tong University School of Medicine in China.

Neurologic presentations of COVID-19 “are not common, but could happen,” Dr. Chen added. Headache, muscle weakness, and myalgias have been documented in other patients in China, he said.
 

Early days

Despite this growing number of anecdotal reports and observational data documenting neurologic effects, the majority of patients with COVID-19 do not present with such symptoms.

“Most COVID-19 patients we have seen have a normal neurological presentation. Abnormal neurological findings we have seen include loss of smell and taste sensation, and states of altered mental status including confusion, lethargy, and coma,” said Robert Stevens, MD, who focuses on neuroscience critical care at the Johns Hopkins School of Medicine in Baltimore, Maryland.

Other groups are reporting seizures, spinal cord disease, and brain stem disease. It has been suggested that brain stem dysfunction may account for the loss of hypoxic respiratory drive seen in a subset of patients with severe COVID-19 disease, he added.

However, Dr. Stevens, who plans to track neurologic outcomes in COVID-19 patients, also cautioned that it’s still early and these case reports are preliminary.

“An important caveat is that our knowledge of the different neurological presentations reported in association with COVID-19 is purely descriptive. We know almost nothing about the potential interactions between COVID-19 and the nervous system,” he noted.

He added it’s likely that some of the neurologic phenomena in COVID-19 are not causally related to the virus.

“This is why we have decided to establish a multisite neuro–COVID-19 data registry, so that we can gain epidemiological and mechanistic insight on these phenomena,” he said.

Nevertheless, in an online report February 27 in the Journal of Medical Virology, Yan-Chao Li, MD, and colleagues wrote that “increasing evidence shows that coronaviruses are not always confined to the respiratory tract and that they may also invade the central nervous system, inducing neurological diseases.”

Dr. Li is affiliated with the Department of Histology and Embryology, College of Basic Medical Sciences, Norman Bethune College of Medicine, Jilin University, Changchun, China.
 

A global view

Scientists observed SARS-CoV in the brains of infected people and animals, particularly the brainstem, they noted. Given the similarity of SARS-CoV to SARS-CoV-2, the virus that causes COVID-19, the researchers suggest a similar invasive mechanism could be occurring in some patients.

Although it hasn’t been proven, Dr. Li and colleagues suggest COVID-19 could act beyond receptors in the lungs, traveling via “a synapse‐connected route to the medullary cardiorespiratory center” in the brain. This action, in turn, could add to the acute respiratory failure observed in many people with COVID-19.

Other neurologists tracking and monitoring case reports of neurologic symptoms potentially related to COVID-19 include Dr. Mayer and Amelia Boehme, PhD, MSPH, an epidemiologist at Columbia University specializing in stroke and cardiovascular disease.

Dr. Boehme suggested on Twitter that the neurology community conduct a multicenter study to examine the relationship between the virus and neurologic symptoms/sequelae.

Medscape Medical News interviewed Michel Dib, MD, a neurologist at the Pitié Salpêtrière hospital in Paris, who said primary neurologic presentations of COVID-19 occur rarely – and primarily in older adults. As other clinicians note, these include confusion and disorientation. He also reports cases of encephalitis and one patient who initially presented with epilepsy.

Initial reports also came from neurologists in countries where COVID-19 struck first. For example, stroke, delirium, epileptic seizures and more are being treated by neurologists at the University of Brescia in Italy in a dedicated unit designed to treat both COVID-19 and neurologic syndromes, Alessandro Pezzini, MD, reported in Neurology Today, a publication of the American Academy of Neurology.

Dr. Pezzini noted that the mechanisms behind the observed increase in vascular complications warrant further investigation. He and colleagues are planning a multicenter study in Italy to dive deeper into the central nervous system effects of COVID-19 infection.

Clinicians in China also report neurologic symptoms in some patients. A study of 221 consecutive COVID-19 patients in Wuhan revealed 11 patients developed acute ischemic stroke, one experienced cerebral venous sinus thrombosis, and another experienced cerebral hemorrhage.

Older age and more severe disease were associated with a greater likelihood for cerebrovascular disease, the authors reported.

Drs. Chen and Li have disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

Since the Centers for Disease Control and Prevention (CDC) confirmed the first US case of novel coronavirus infection on January 20, much of the clinical focus has naturally centered on the virus’ prodromal symptoms and severe respiratory effects.

However, US neurologists are now reporting that COVID-19 symptoms may also include encephalopathy, ataxia, and other neurologic signs.

“I am hearing about strokes, ataxia, myelitis, etc,” Stephan Mayer, MD, a neurointensivist in Troy, Michigan, posted on Twitter on March 26.

Other possible signs and symptoms include subtle neurologic deficits, severe fatigue, trigeminal neuralgia, complete/severe anosmia, and myalgia as reported by clinicians who responded to the tweet.

On March 31, the first presumptive case of encephalitis linked to COVID-19 was documented in a 58-year-old woman treated at Henry Ford Health System in Detroit.

Physicians who reported the acute necrotizing hemorrhagic encephalopathy case in the journal Radiology counseled neurologists to suspect the virus in patients presenting with altered levels of consciousness.

Researchers in China also reported the first presumptive case of Guillain-Barre syndrome (GBS) associated with COVID-19. A 61-year-old woman initially presented with signs of the autoimmune neuropathy GBS, including leg weakness, and severe fatigue after returning from Wuhan, China. She did not initially present with the common COVID-19 symptoms of fever, cough, or chest pain.

Her muscle weakness and distal areflexia progressed over time. On day 8, the patient developed more characteristic COVID-19 signs, including ‘ground glass’ lung opacities, dry cough, and fever. She was treated with antivirals, immunoglobulins, and supportive care, recovering slowly until discharge on day 30.

“Our single-case report only suggests a possible association between GBS and SARS-CoV-2 infection. It may or may not have causal relationship. More cases with epidemiological data are necessary,” said senior author Sheng Chen, MD, PhD.

However, “we still suggest physicians who encounter acute GBS patients from pandemic areas protect themselves carefully and test for the virus on admission. If the results are positive, the patient needs to be isolated,” added Dr. Chen, a neurologist at Shanghai Ruijin Hospital and Shanghai Jiao Tong University School of Medicine in China.

Neurologic presentations of COVID-19 “are not common, but could happen,” Dr. Chen added. Headache, muscle weakness, and myalgias have been documented in other patients in China, he said.
 

Early days

Despite this growing number of anecdotal reports and observational data documenting neurologic effects, the majority of patients with COVID-19 do not present with such symptoms.

“Most COVID-19 patients we have seen have a normal neurological presentation. Abnormal neurological findings we have seen include loss of smell and taste sensation, and states of altered mental status including confusion, lethargy, and coma,” said Robert Stevens, MD, who focuses on neuroscience critical care at the Johns Hopkins School of Medicine in Baltimore, Maryland.

Other groups are reporting seizures, spinal cord disease, and brain stem disease. It has been suggested that brain stem dysfunction may account for the loss of hypoxic respiratory drive seen in a subset of patients with severe COVID-19 disease, he added.

However, Dr. Stevens, who plans to track neurologic outcomes in COVID-19 patients, also cautioned that it’s still early and these case reports are preliminary.

“An important caveat is that our knowledge of the different neurological presentations reported in association with COVID-19 is purely descriptive. We know almost nothing about the potential interactions between COVID-19 and the nervous system,” he noted.

He added it’s likely that some of the neurologic phenomena in COVID-19 are not causally related to the virus.

“This is why we have decided to establish a multisite neuro–COVID-19 data registry, so that we can gain epidemiological and mechanistic insight on these phenomena,” he said.

Nevertheless, in an online report February 27 in the Journal of Medical Virology, Yan-Chao Li, MD, and colleagues wrote that “increasing evidence shows that coronaviruses are not always confined to the respiratory tract and that they may also invade the central nervous system, inducing neurological diseases.”

Dr. Li is affiliated with the Department of Histology and Embryology, College of Basic Medical Sciences, Norman Bethune College of Medicine, Jilin University, Changchun, China.
 

A global view

Scientists observed SARS-CoV in the brains of infected people and animals, particularly the brainstem, they noted. Given the similarity of SARS-CoV to SARS-CoV-2, the virus that causes COVID-19, the researchers suggest a similar invasive mechanism could be occurring in some patients.

Although it hasn’t been proven, Dr. Li and colleagues suggest COVID-19 could act beyond receptors in the lungs, traveling via “a synapse‐connected route to the medullary cardiorespiratory center” in the brain. This action, in turn, could add to the acute respiratory failure observed in many people with COVID-19.

Other neurologists tracking and monitoring case reports of neurologic symptoms potentially related to COVID-19 include Dr. Mayer and Amelia Boehme, PhD, MSPH, an epidemiologist at Columbia University specializing in stroke and cardiovascular disease.

Dr. Boehme suggested on Twitter that the neurology community conduct a multicenter study to examine the relationship between the virus and neurologic symptoms/sequelae.

Medscape Medical News interviewed Michel Dib, MD, a neurologist at the Pitié Salpêtrière hospital in Paris, who said primary neurologic presentations of COVID-19 occur rarely – and primarily in older adults. As other clinicians note, these include confusion and disorientation. He also reports cases of encephalitis and one patient who initially presented with epilepsy.

Initial reports also came from neurologists in countries where COVID-19 struck first. For example, stroke, delirium, epileptic seizures and more are being treated by neurologists at the University of Brescia in Italy in a dedicated unit designed to treat both COVID-19 and neurologic syndromes, Alessandro Pezzini, MD, reported in Neurology Today, a publication of the American Academy of Neurology.

Dr. Pezzini noted that the mechanisms behind the observed increase in vascular complications warrant further investigation. He and colleagues are planning a multicenter study in Italy to dive deeper into the central nervous system effects of COVID-19 infection.

Clinicians in China also report neurologic symptoms in some patients. A study of 221 consecutive COVID-19 patients in Wuhan revealed 11 patients developed acute ischemic stroke, one experienced cerebral venous sinus thrombosis, and another experienced cerebral hemorrhage.

Older age and more severe disease were associated with a greater likelihood for cerebrovascular disease, the authors reported.

Drs. Chen and Li have disclosed no relevant financial relationships.

This article first appeared on Medscape.com.

COVID-19 is less severe in children, compared with adults, early data suggest. “Yet many questions remain, especially regarding the effects on children with special health care needs,” according to a viewpoint recently published in JAMA Pediatrics.

Courtesy NIAID-RML

The COVID-19 pandemic also raises questions about clinic visits for healthy children in communities with widespread transmission and about the unintended effects of school closures and other measures aimed at slowing the spread of the disease, wrote Sonja A. Rasmussen, MD, and Lindsay A. Thompson, MD, both of the University of Florida, Gainesville.

In communities with widespread outbreaks, telephone triage and expanded use of telehealth may be needed to limit nonurgent clinic visits, they suggested.

“Community mitigation interventions, such as school closures, cancellation of mass gatherings, and closure of public places are appropriate” in places with widespread transmission, Dr. Rasmussen and Dr. Thompson wrote. “If these measures are required, pediatricians need to advocate to alleviate unintended consequences or inadvertent expansion of health disparities on children, such as by finding ways to maintain nutrition for those who depend on school lunches and provide online mental health services for stress management for families whose routines might be severely interrupted for an extended period of time.”

Continued preventive care for infants and vaccinations for younger children may be warranted, they wrote.
 

Clinical course

Overall, children have experienced lower-than-expected rates of COVID-19 disease, and deaths in this population appear to be rare, Dr. Rasmussen and Dr. Thompson wrote.

Common symptoms of COVID-19 in adults include fever, cough, myalgia, shortness of breath, headache, and diarrhea, and children have similar manifestations. In adults, older age and underlying illness increase the risk of severe disease. There has not been convincing evidence of intrauterine transmission of COVID-19, and whether breastfeeding can transmit the virus is unknown, they noted.

An analysis of more than 72,000 cases from China found that 1.2% were in patients aged 10-19 years, and 0.9% were in patients younger than 10 years. One death occurred in the adolescent age range. A separate analysis of 2,143 confirmed and suspected pediatric cases in China indicated that infants were at higher risk of severe disease (11%), compared with older children – 4% for those aged 11-15 years, and 3% in those 16 years and older.

There is less data available about the clinical course of COVID-19 in children in the United States, the authors noted. But among more than 4,000 patients with COVID-19 in the United States through March 16, no ICU admissions or deaths were reported for patients aged younger than 19 years (MMWR Morb Mortal Wkly Rep. 2020 Mar 26;69[12]:343-6).

Still, researchers have suggested that children with underlying illness may be at greater risk of COVID-19. In a study of 20 children with COVID-19 in China, 7 of the patients had a history of congenital or acquired disease, potentially indicating that they were more susceptible to the virus (Pediatr Pulmonol. 2020 Mar 5. doi: 10.1002/ppul.24718). Chest CT consolidations with surrounding halo sign was evident in half of the patients, and procalcitonin elevation was seen in 80% of the children; these were signs common in children, but not in adults with COVID-19.

“About 10% of children in the U.S. have asthma; many children live with other pulmonary, cardiac, neuromuscular, or genetic diseases that affect their ability to handle respiratory disease, and other children are immunosuppressed because of illness or its treatment,” Dr. Rasmussen and Dr. Thompson wrote. “It is possible that these children will experience COVID-19 differently than counterparts of the same ages who are healthy.”

The authors reported that they had no financial disclosures.

[email protected]

SOURCE: Rasmussen SA, Thompson LA. JAMA Pediatr. 2020 Apr 3. doi: 10.1001/jamapediatrics.2020.1224.

COVID-19 is less severe in children, compared with adults, early data suggest. “Yet many questions remain, especially regarding the effects on children with special health care needs,” according to a viewpoint recently published in JAMA Pediatrics.

Courtesy NIAID-RML

The COVID-19 pandemic also raises questions about clinic visits for healthy children in communities with widespread transmission and about the unintended effects of school closures and other measures aimed at slowing the spread of the disease, wrote Sonja A. Rasmussen, MD, and Lindsay A. Thompson, MD, both of the University of Florida, Gainesville.

In communities with widespread outbreaks, telephone triage and expanded use of telehealth may be needed to limit nonurgent clinic visits, they suggested.

“Community mitigation interventions, such as school closures, cancellation of mass gatherings, and closure of public places are appropriate” in places with widespread transmission, Dr. Rasmussen and Dr. Thompson wrote. “If these measures are required, pediatricians need to advocate to alleviate unintended consequences or inadvertent expansion of health disparities on children, such as by finding ways to maintain nutrition for those who depend on school lunches and provide online mental health services for stress management for families whose routines might be severely interrupted for an extended period of time.”

Continued preventive care for infants and vaccinations for younger children may be warranted, they wrote.
 

Clinical course

Overall, children have experienced lower-than-expected rates of COVID-19 disease, and deaths in this population appear to be rare, Dr. Rasmussen and Dr. Thompson wrote.

Common symptoms of COVID-19 in adults include fever, cough, myalgia, shortness of breath, headache, and diarrhea, and children have similar manifestations. In adults, older age and underlying illness increase the risk of severe disease. There has not been convincing evidence of intrauterine transmission of COVID-19, and whether breastfeeding can transmit the virus is unknown, they noted.

An analysis of more than 72,000 cases from China found that 1.2% were in patients aged 10-19 years, and 0.9% were in patients younger than 10 years. One death occurred in the adolescent age range. A separate analysis of 2,143 confirmed and suspected pediatric cases in China indicated that infants were at higher risk of severe disease (11%), compared with older children – 4% for those aged 11-15 years, and 3% in those 16 years and older.

There is less data available about the clinical course of COVID-19 in children in the United States, the authors noted. But among more than 4,000 patients with COVID-19 in the United States through March 16, no ICU admissions or deaths were reported for patients aged younger than 19 years (MMWR Morb Mortal Wkly Rep. 2020 Mar 26;69[12]:343-6).

Still, researchers have suggested that children with underlying illness may be at greater risk of COVID-19. In a study of 20 children with COVID-19 in China, 7 of the patients had a history of congenital or acquired disease, potentially indicating that they were more susceptible to the virus (Pediatr Pulmonol. 2020 Mar 5. doi: 10.1002/ppul.24718). Chest CT consolidations with surrounding halo sign was evident in half of the patients, and procalcitonin elevation was seen in 80% of the children; these were signs common in children, but not in adults with COVID-19.

“About 10% of children in the U.S. have asthma; many children live with other pulmonary, cardiac, neuromuscular, or genetic diseases that affect their ability to handle respiratory disease, and other children are immunosuppressed because of illness or its treatment,” Dr. Rasmussen and Dr. Thompson wrote. “It is possible that these children will experience COVID-19 differently than counterparts of the same ages who are healthy.”

The authors reported that they had no financial disclosures.

[email protected]

SOURCE: Rasmussen SA, Thompson LA. JAMA Pediatr. 2020 Apr 3. doi: 10.1001/jamapediatrics.2020.1224.

COVID-19 is less severe in children, compared with adults, early data suggest. “Yet many questions remain, especially regarding the effects on children with special health care needs,” according to a viewpoint recently published in JAMA Pediatrics.

Courtesy NIAID-RML

The COVID-19 pandemic also raises questions about clinic visits for healthy children in communities with widespread transmission and about the unintended effects of school closures and other measures aimed at slowing the spread of the disease, wrote Sonja A. Rasmussen, MD, and Lindsay A. Thompson, MD, both of the University of Florida, Gainesville.

In communities with widespread outbreaks, telephone triage and expanded use of telehealth may be needed to limit nonurgent clinic visits, they suggested.

“Community mitigation interventions, such as school closures, cancellation of mass gatherings, and closure of public places are appropriate” in places with widespread transmission, Dr. Rasmussen and Dr. Thompson wrote. “If these measures are required, pediatricians need to advocate to alleviate unintended consequences or inadvertent expansion of health disparities on children, such as by finding ways to maintain nutrition for those who depend on school lunches and provide online mental health services for stress management for families whose routines might be severely interrupted for an extended period of time.”

Continued preventive care for infants and vaccinations for younger children may be warranted, they wrote.
 

Clinical course

Overall, children have experienced lower-than-expected rates of COVID-19 disease, and deaths in this population appear to be rare, Dr. Rasmussen and Dr. Thompson wrote.

Common symptoms of COVID-19 in adults include fever, cough, myalgia, shortness of breath, headache, and diarrhea, and children have similar manifestations. In adults, older age and underlying illness increase the risk of severe disease. There has not been convincing evidence of intrauterine transmission of COVID-19, and whether breastfeeding can transmit the virus is unknown, they noted.

An analysis of more than 72,000 cases from China found that 1.2% were in patients aged 10-19 years, and 0.9% were in patients younger than 10 years. One death occurred in the adolescent age range. A separate analysis of 2,143 confirmed and suspected pediatric cases in China indicated that infants were at higher risk of severe disease (11%), compared with older children – 4% for those aged 11-15 years, and 3% in those 16 years and older.

There is less data available about the clinical course of COVID-19 in children in the United States, the authors noted. But among more than 4,000 patients with COVID-19 in the United States through March 16, no ICU admissions or deaths were reported for patients aged younger than 19 years (MMWR Morb Mortal Wkly Rep. 2020 Mar 26;69[12]:343-6).

Still, researchers have suggested that children with underlying illness may be at greater risk of COVID-19. In a study of 20 children with COVID-19 in China, 7 of the patients had a history of congenital or acquired disease, potentially indicating that they were more susceptible to the virus (Pediatr Pulmonol. 2020 Mar 5. doi: 10.1002/ppul.24718). Chest CT consolidations with surrounding halo sign was evident in half of the patients, and procalcitonin elevation was seen in 80% of the children; these were signs common in children, but not in adults with COVID-19.

“About 10% of children in the U.S. have asthma; many children live with other pulmonary, cardiac, neuromuscular, or genetic diseases that affect their ability to handle respiratory disease, and other children are immunosuppressed because of illness or its treatment,” Dr. Rasmussen and Dr. Thompson wrote. “It is possible that these children will experience COVID-19 differently than counterparts of the same ages who are healthy.”

The authors reported that they had no financial disclosures.

[email protected]

SOURCE: Rasmussen SA, Thompson LA. JAMA Pediatr. 2020 Apr 3. doi: 10.1001/jamapediatrics.2020.1224.

Influenza activity measures dropped during the week ending March 28, but the percentage of deaths attributed to pneumonia and influenza (P&I) has risen into epidemic territory, according to the Centers for Disease Control and Prevention.

This influenza news, however, needs to be viewed through a COVID-19 lens.

The P&I mortality data are reported together and are always a week behind the other measures, in this case covering the week ending March 21, but they show influenza deaths dropping to 0.8% as the overall P&I rate rose from 7.4% to 8.2%, a pneumonia-fueled increase that was “likely associated with COVID-19 rather than influenza,” the CDC’s influenza division noted.

The two main activity measures, at least, are on the same page for the first time since the end of February.

The rate of outpatient visits for influenza-like illness (ILI) had been dropping up to that point but then rose for an unprecedented third time this season, a change probably brought about by COVID-related health care–seeking behavior, the influenza division reported in its weekly FluView report.

This corresponding third drop in ILI activity brought the rate down to 5.4% this week from 6.2% the previous week, the CDC reported. The two previous high points occurred during the weeks ending Dec. 28 (7.0%) and Feb. 8 (6.7%)

The COVID-related changes, such as increased use of telemedicine and social distancing, “impact data from [the Outpatient Influenza-Like Illness Surveillance Network] in ways that are difficult to differentiate from changes in illness levels and should be interpreted with caution,” the CDC investigators noted.

The other activity measure, positive tests of respiratory specimens for influenza at clinical laboratories, continued the decline that started in mid-February by falling from 7.3% to 2.1%, its lowest rate since October, CDC data show.

Overall flu-related deaths may be down, but mortality in children continued at a near-record level. Seven such deaths were reported this past week, which brings the total for the 2019-2020 season to 162. “This number is higher than recorded at the same time in every season since reporting began in 2004-05, except for the 2009 pandemic,” the CDC noted.

[email protected]

Influenza activity measures dropped during the week ending March 28, but the percentage of deaths attributed to pneumonia and influenza (P&I) has risen into epidemic territory, according to the Centers for Disease Control and Prevention.

This influenza news, however, needs to be viewed through a COVID-19 lens.

The P&I mortality data are reported together and are always a week behind the other measures, in this case covering the week ending March 21, but they show influenza deaths dropping to 0.8% as the overall P&I rate rose from 7.4% to 8.2%, a pneumonia-fueled increase that was “likely associated with COVID-19 rather than influenza,” the CDC’s influenza division noted.

The two main activity measures, at least, are on the same page for the first time since the end of February.

The rate of outpatient visits for influenza-like illness (ILI) had been dropping up to that point but then rose for an unprecedented third time this season, a change probably brought about by COVID-related health care–seeking behavior, the influenza division reported in its weekly FluView report.

This corresponding third drop in ILI activity brought the rate down to 5.4% this week from 6.2% the previous week, the CDC reported. The two previous high points occurred during the weeks ending Dec. 28 (7.0%) and Feb. 8 (6.7%)

The COVID-related changes, such as increased use of telemedicine and social distancing, “impact data from [the Outpatient Influenza-Like Illness Surveillance Network] in ways that are difficult to differentiate from changes in illness levels and should be interpreted with caution,” the CDC investigators noted.

The other activity measure, positive tests of respiratory specimens for influenza at clinical laboratories, continued the decline that started in mid-February by falling from 7.3% to 2.1%, its lowest rate since October, CDC data show.

Overall flu-related deaths may be down, but mortality in children continued at a near-record level. Seven such deaths were reported this past week, which brings the total for the 2019-2020 season to 162. “This number is higher than recorded at the same time in every season since reporting began in 2004-05, except for the 2009 pandemic,” the CDC noted.

[email protected]

Influenza activity measures dropped during the week ending March 28, but the percentage of deaths attributed to pneumonia and influenza (P&I) has risen into epidemic territory, according to the Centers for Disease Control and Prevention.

This influenza news, however, needs to be viewed through a COVID-19 lens.

The P&I mortality data are reported together and are always a week behind the other measures, in this case covering the week ending March 21, but they show influenza deaths dropping to 0.8% as the overall P&I rate rose from 7.4% to 8.2%, a pneumonia-fueled increase that was “likely associated with COVID-19 rather than influenza,” the CDC’s influenza division noted.

The two main activity measures, at least, are on the same page for the first time since the end of February.

The rate of outpatient visits for influenza-like illness (ILI) had been dropping up to that point but then rose for an unprecedented third time this season, a change probably brought about by COVID-related health care–seeking behavior, the influenza division reported in its weekly FluView report.

This corresponding third drop in ILI activity brought the rate down to 5.4% this week from 6.2% the previous week, the CDC reported. The two previous high points occurred during the weeks ending Dec. 28 (7.0%) and Feb. 8 (6.7%)

The COVID-related changes, such as increased use of telemedicine and social distancing, “impact data from [the Outpatient Influenza-Like Illness Surveillance Network] in ways that are difficult to differentiate from changes in illness levels and should be interpreted with caution,” the CDC investigators noted.

The other activity measure, positive tests of respiratory specimens for influenza at clinical laboratories, continued the decline that started in mid-February by falling from 7.3% to 2.1%, its lowest rate since October, CDC data show.

Overall flu-related deaths may be down, but mortality in children continued at a near-record level. Seven such deaths were reported this past week, which brings the total for the 2019-2020 season to 162. “This number is higher than recorded at the same time in every season since reporting began in 2004-05, except for the 2009 pandemic,” the CDC noted.

[email protected]

The U.S. Food and Drug Administration has granted Cellex an emergency use authorization to market a rapid antibody test for COVID-19, the first antibody test released amidst the pandemic.

“It is reasonable to believe that your product may be effective in diagnosing COVID-19,” and “there is no adequate, approved, and available alternative,” the agency said in a letter to Cellex.

A drop of serum, plasma, or whole blood is placed into a well on a small cartridge, and the results are read 15-20 minutes later; lines indicate the presence of IgM, IgG, or both antibodies against the SARS-CoV-2 virus.

Of 128 samples confirmed positive by reverse transcription polymerase chain reaction in premarket testing, 120 tested positive by IgG, IgM, or both. Of 250 confirmed negative, 239 were negative by the rapid test.

The numbers translated to a positive percent agreement with RT-PCR of 93.8% (95% CI: 88.06-97.26%) and a negative percent agreement of 96.4% (95% CI: 92.26-97.78%), according to labeling.

“Results from antibody testing should not be used as the sole basis to diagnose or exclude SARS-CoV-2 infection,” the labeling states.

Negative results do not rule out infection; antibodies might not have had enough time to form or the virus could have had a minor amino acid mutation in the epitope recognized by the antibodies screened for in the test. False positives can occur due to cross-reactivity with antibodies from previous infections, such as from other coronaviruses.

Labeling suggests that people who test negative should be checked again in a few days, and positive results should be confirmed by other methods. Also, the intensity of the test lines do not necessarily correlate with SARS-CoV-2 antibody titers.

As part of its authorization, the FDA waived good manufacturing practice requirements, but stipulated that advertising must state that the test has not been formally approved by the agency.

Testing is limited to Clinical Laboratory Improvement Amendments-certified labs. Positive results are required to be reported to public health authorities. The test can be ordered through Cellex distributors or directly from the company.

IgM antibodies are generally detectable several days after the initial infection, while IgG antibodies take longer. It’s not known how long COVID-19 antibodies persist after the infection has cleared, the agency said.

[email protected]

The U.S. Food and Drug Administration has granted Cellex an emergency use authorization to market a rapid antibody test for COVID-19, the first antibody test released amidst the pandemic.

“It is reasonable to believe that your product may be effective in diagnosing COVID-19,” and “there is no adequate, approved, and available alternative,” the agency said in a letter to Cellex.

A drop of serum, plasma, or whole blood is placed into a well on a small cartridge, and the results are read 15-20 minutes later; lines indicate the presence of IgM, IgG, or both antibodies against the SARS-CoV-2 virus.

Of 128 samples confirmed positive by reverse transcription polymerase chain reaction in premarket testing, 120 tested positive by IgG, IgM, or both. Of 250 confirmed negative, 239 were negative by the rapid test.

The numbers translated to a positive percent agreement with RT-PCR of 93.8% (95% CI: 88.06-97.26%) and a negative percent agreement of 96.4% (95% CI: 92.26-97.78%), according to labeling.

“Results from antibody testing should not be used as the sole basis to diagnose or exclude SARS-CoV-2 infection,” the labeling states.

Negative results do not rule out infection; antibodies might not have had enough time to form or the virus could have had a minor amino acid mutation in the epitope recognized by the antibodies screened for in the test. False positives can occur due to cross-reactivity with antibodies from previous infections, such as from other coronaviruses.

Labeling suggests that people who test negative should be checked again in a few days, and positive results should be confirmed by other methods. Also, the intensity of the test lines do not necessarily correlate with SARS-CoV-2 antibody titers.

As part of its authorization, the FDA waived good manufacturing practice requirements, but stipulated that advertising must state that the test has not been formally approved by the agency.

Testing is limited to Clinical Laboratory Improvement Amendments-certified labs. Positive results are required to be reported to public health authorities. The test can be ordered through Cellex distributors or directly from the company.

IgM antibodies are generally detectable several days after the initial infection, while IgG antibodies take longer. It’s not known how long COVID-19 antibodies persist after the infection has cleared, the agency said.

[email protected]

The U.S. Food and Drug Administration has granted Cellex an emergency use authorization to market a rapid antibody test for COVID-19, the first antibody test released amidst the pandemic.

“It is reasonable to believe that your product may be effective in diagnosing COVID-19,” and “there is no adequate, approved, and available alternative,” the agency said in a letter to Cellex.

A drop of serum, plasma, or whole blood is placed into a well on a small cartridge, and the results are read 15-20 minutes later; lines indicate the presence of IgM, IgG, or both antibodies against the SARS-CoV-2 virus.

Of 128 samples confirmed positive by reverse transcription polymerase chain reaction in premarket testing, 120 tested positive by IgG, IgM, or both. Of 250 confirmed negative, 239 were negative by the rapid test.

The numbers translated to a positive percent agreement with RT-PCR of 93.8% (95% CI: 88.06-97.26%) and a negative percent agreement of 96.4% (95% CI: 92.26-97.78%), according to labeling.

“Results from antibody testing should not be used as the sole basis to diagnose or exclude SARS-CoV-2 infection,” the labeling states.

Negative results do not rule out infection; antibodies might not have had enough time to form or the virus could have had a minor amino acid mutation in the epitope recognized by the antibodies screened for in the test. False positives can occur due to cross-reactivity with antibodies from previous infections, such as from other coronaviruses.

Labeling suggests that people who test negative should be checked again in a few days, and positive results should be confirmed by other methods. Also, the intensity of the test lines do not necessarily correlate with SARS-CoV-2 antibody titers.

As part of its authorization, the FDA waived good manufacturing practice requirements, but stipulated that advertising must state that the test has not been formally approved by the agency.

Testing is limited to Clinical Laboratory Improvement Amendments-certified labs. Positive results are required to be reported to public health authorities. The test can be ordered through Cellex distributors or directly from the company.

IgM antibodies are generally detectable several days after the initial infection, while IgG antibodies take longer. It’s not known how long COVID-19 antibodies persist after the infection has cleared, the agency said.

[email protected]

The growing threat of novel severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), now commonly known as coronavirus disease 2019 (COVID-19), has forced Americans to stay home due to quarantine, especially older individuals and those who are immunocompromised or have an underlying health problem such as pulmonary or cardiac disease. The federal government’s estimated $2 trillion CARES Act (Coronavirus Aid, Relief, and Economic Security Act)¹ will provide a much-needed boost to health care and the economy; prior recent legislation approved an $8.6 billion emergency relief bill,² HR 6074 (Coronavirus Preparedness and Response Supplemental Appropriations Act of 2020), which expands Medicare coverage of telehealth to patients in their home rather than having them travel to a designated site, covers both established and new patients, allows physicians to waive or reduce co-payments and cost-sharing requirements, and reimburses the same as an in-person visit.

Federal emergency legislation temporarily relaxed the Health Insurance Portability and Accountability Act (HIPAA),^3,4 allowing physicians to use Facetime and Skype for Medicare patients. In addition, Medicare will reimburse telehealth services for out-of-state-providers; however, cross-state licensure is governed by the patient’s home state.⁵ As of March 25, 2020, emergency legislation to temporarily allow out-of-state physicians to provide care, whether or not it relates to COVID-19, was enacted in 13 states: California, Colorado, Connecticut, Delaware, Hawaii, Idaho, Indiana, Iowa, Maryland, Minnesota, New York, North Carolina, and North Dakota.⁶ Ongoing legislation is rapidly changing; for daily updates on licensing laws, refer to the Federation of State Medical Boards website. Check your own institutional policies and malpractice provider prior to offering telehealth, as local laws and regulations may vary. Herein, we offer suggestions for using teledermatology.

Reimbursement

Prior to the COVID-19 pandemic, 16 states—Arkansas, Colorado, Delaware, Hawaii, Kentucky, Maine, Minnesota, Mississippi, Missouri, Montana, Nevada, New Jersey, New Mexico, Tennessee, Utah, and Virginia—had true payment parity laws,⁷ which reimbursed telehealth as a regular office visit using modifier -95. Several states have enacted emergency telehealth expansion laws to discourage COVID-19 spread⁸; some states such as New Jersey now prohibit co-payments or out-of-pocket deductibles from all in-network insurance plans (commercial Medicare and Medicaid).^9,10 Updated legislation about COVID-19 and telemedicine can be found on the Center for Connected Health Policy website. An interactive map of laws and reimbursement policies also is available on the websites of the American Telehealth Association and the American Academy of Dermatology. The ability to charge a patient directly for telehealth services depends on the insurance provider agreement. If telehealth is a covered service, you cannot charge these patients out-of-pocket.

Teledermatology Options

For many conditions, the effectiveness and quality of teledermatology is comparable to a conventional face-to-face visit.¹¹ There are 3 types of telehealth visits:

• Store and forward: The clinician reviews images or videos and responds asynchronously,¹² similar to an email chain.
• Live interactive: The clinician uses 2-way video synchronously.¹² In states with parity laws, this method is reimbursed equally to an in-person visit.
• Remote patient monitoring: Health-related data are collected and transmitted to a remote clinician, similar to remote intensive care unit management.¹² Dermatologists are unlikely to utilize this modality.

The Virtual Visit

Follow these guidelines for practicing teledermatology: (1) ensure that the image or video is clear and that there is proper lighting, a monochromatic background, and a clear view of the anatomy necessary to evaluate; (2) dress in appropriate attire as if you were in clinic, such as scrubs, a white coat, or other professional attire; (3) begin the telehealth encounter by obtaining informed consent,¹³ according to state¹⁴ or Medicare guidelines; (4) document the location of the patient and provider; (5) for live virtual visits, document similarly to an in-person visit⁵; (6) for all other virtual care, document minutes spent on each task; and (7) select only 1 billing code per visit.

In some states, regulations for commercial and/or Medicaid plans require that other modifiers be added to billing codes, which vary plan-by-plan:

• Modifier GQ: For asynchronous care (store and forward).
• Modifier GT: For synchronous live telehealth visits.
• Modifier -95: In states where there are equal parity laws or if you are billing a commercial insurance payer (may vary by plan).

Medicare does not require any additional modifiers.¹⁵ If the plan reimburses telemedicine equally to a face-to-face visit, use regular office visit codes. The eTable¹⁶ lists billing codes and Medicare reimbursement rates.

Secure Software

Several electronic medical record systems already include secure patient communication. Other HIPAA-compliant communication options with a variety of features are available to clinicians:

• Klara allows for HIPAA-secure texting, group messaging, photograph uploads, and telephone calls.
• Doximity offers free calling and faxes.
• G Suite for health care offers HIPAA-compliant texting, emailing, and video calls through Google Voice and Google Hangouts Meet.
• Secure video chat is available on Zoom for Healthcare, VSee, Doxy.me, and other platforms.
• Multiservice platforms such as DermEngine include billing, payments, teledermatology, and teledermoscopy and allow for interprofessional consultation.

The Bottom Line

Telehealth readiness is playing a key role in containing the spread of COVID-19. In-person dermatology visits are now being limited to urgent conditions only, as per institutional guidelines.⁴



Acknowledgment
We thank Garfunkel Wild, P.C. (Great Neck, New York), for their expertise and assistance.

The growing threat of novel severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), now commonly known as coronavirus disease 2019 (COVID-19), has forced Americans to stay home due to quarantine, especially older individuals and those who are immunocompromised or have an underlying health problem such as pulmonary or cardiac disease. The federal government’s estimated $2 trillion CARES Act (Coronavirus Aid, Relief, and Economic Security Act)¹ will provide a much-needed boost to health care and the economy; prior recent legislation approved an $8.6 billion emergency relief bill,² HR 6074 (Coronavirus Preparedness and Response Supplemental Appropriations Act of 2020), which expands Medicare coverage of telehealth to patients in their home rather than having them travel to a designated site, covers both established and new patients, allows physicians to waive or reduce co-payments and cost-sharing requirements, and reimburses the same as an in-person visit.

Federal emergency legislation temporarily relaxed the Health Insurance Portability and Accountability Act (HIPAA),^3,4 allowing physicians to use Facetime and Skype for Medicare patients. In addition, Medicare will reimburse telehealth services for out-of-state-providers; however, cross-state licensure is governed by the patient’s home state.⁵ As of March 25, 2020, emergency legislation to temporarily allow out-of-state physicians to provide care, whether or not it relates to COVID-19, was enacted in 13 states: California, Colorado, Connecticut, Delaware, Hawaii, Idaho, Indiana, Iowa, Maryland, Minnesota, New York, North Carolina, and North Dakota.⁶ Ongoing legislation is rapidly changing; for daily updates on licensing laws, refer to the Federation of State Medical Boards website. Check your own institutional policies and malpractice provider prior to offering telehealth, as local laws and regulations may vary. Herein, we offer suggestions for using teledermatology.

Reimbursement

Prior to the COVID-19 pandemic, 16 states—Arkansas, Colorado, Delaware, Hawaii, Kentucky, Maine, Minnesota, Mississippi, Missouri, Montana, Nevada, New Jersey, New Mexico, Tennessee, Utah, and Virginia—had true payment parity laws,⁷ which reimbursed telehealth as a regular office visit using modifier -95. Several states have enacted emergency telehealth expansion laws to discourage COVID-19 spread⁸; some states such as New Jersey now prohibit co-payments or out-of-pocket deductibles from all in-network insurance plans (commercial Medicare and Medicaid).^9,10 Updated legislation about COVID-19 and telemedicine can be found on the Center for Connected Health Policy website. An interactive map of laws and reimbursement policies also is available on the websites of the American Telehealth Association and the American Academy of Dermatology. The ability to charge a patient directly for telehealth services depends on the insurance provider agreement. If telehealth is a covered service, you cannot charge these patients out-of-pocket.

Teledermatology Options

For many conditions, the effectiveness and quality of teledermatology is comparable to a conventional face-to-face visit.¹¹ There are 3 types of telehealth visits:

• Store and forward: The clinician reviews images or videos and responds asynchronously,¹² similar to an email chain.
• Live interactive: The clinician uses 2-way video synchronously.¹² In states with parity laws, this method is reimbursed equally to an in-person visit.
• Remote patient monitoring: Health-related data are collected and transmitted to a remote clinician, similar to remote intensive care unit management.¹² Dermatologists are unlikely to utilize this modality.

The Virtual Visit

Follow these guidelines for practicing teledermatology: (1) ensure that the image or video is clear and that there is proper lighting, a monochromatic background, and a clear view of the anatomy necessary to evaluate; (2) dress in appropriate attire as if you were in clinic, such as scrubs, a white coat, or other professional attire; (3) begin the telehealth encounter by obtaining informed consent,¹³ according to state¹⁴ or Medicare guidelines; (4) document the location of the patient and provider; (5) for live virtual visits, document similarly to an in-person visit⁵; (6) for all other virtual care, document minutes spent on each task; and (7) select only 1 billing code per visit.

In some states, regulations for commercial and/or Medicaid plans require that other modifiers be added to billing codes, which vary plan-by-plan:

• Modifier GQ: For asynchronous care (store and forward).
• Modifier GT: For synchronous live telehealth visits.
• Modifier -95: In states where there are equal parity laws or if you are billing a commercial insurance payer (may vary by plan).

Medicare does not require any additional modifiers.¹⁵ If the plan reimburses telemedicine equally to a face-to-face visit, use regular office visit codes. The eTable¹⁶ lists billing codes and Medicare reimbursement rates.

Secure Software

Several electronic medical record systems already include secure patient communication. Other HIPAA-compliant communication options with a variety of features are available to clinicians:

• Klara allows for HIPAA-secure texting, group messaging, photograph uploads, and telephone calls.
• Doximity offers free calling and faxes.
• G Suite for health care offers HIPAA-compliant texting, emailing, and video calls through Google Voice and Google Hangouts Meet.
• Secure video chat is available on Zoom for Healthcare, VSee, Doxy.me, and other platforms.
• Multiservice platforms such as DermEngine include billing, payments, teledermatology, and teledermoscopy and allow for interprofessional consultation.

The Bottom Line

Telehealth readiness is playing a key role in containing the spread of COVID-19. In-person dermatology visits are now being limited to urgent conditions only, as per institutional guidelines.⁴



Acknowledgment
We thank Garfunkel Wild, P.C. (Great Neck, New York), for their expertise and assistance.

The growing threat of novel severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), now commonly known as coronavirus disease 2019 (COVID-19), has forced Americans to stay home due to quarantine, especially older individuals and those who are immunocompromised or have an underlying health problem such as pulmonary or cardiac disease. The federal government’s estimated $2 trillion CARES Act (Coronavirus Aid, Relief, and Economic Security Act)¹ will provide a much-needed boost to health care and the economy; prior recent legislation approved an $8.6 billion emergency relief bill,² HR 6074 (Coronavirus Preparedness and Response Supplemental Appropriations Act of 2020), which expands Medicare coverage of telehealth to patients in their home rather than having them travel to a designated site, covers both established and new patients, allows physicians to waive or reduce co-payments and cost-sharing requirements, and reimburses the same as an in-person visit.

Federal emergency legislation temporarily relaxed the Health Insurance Portability and Accountability Act (HIPAA),^3,4 allowing physicians to use Facetime and Skype for Medicare patients. In addition, Medicare will reimburse telehealth services for out-of-state-providers; however, cross-state licensure is governed by the patient’s home state.⁵ As of March 25, 2020, emergency legislation to temporarily allow out-of-state physicians to provide care, whether or not it relates to COVID-19, was enacted in 13 states: California, Colorado, Connecticut, Delaware, Hawaii, Idaho, Indiana, Iowa, Maryland, Minnesota, New York, North Carolina, and North Dakota.⁶ Ongoing legislation is rapidly changing; for daily updates on licensing laws, refer to the Federation of State Medical Boards website. Check your own institutional policies and malpractice provider prior to offering telehealth, as local laws and regulations may vary. Herein, we offer suggestions for using teledermatology.

Reimbursement

Prior to the COVID-19 pandemic, 16 states—Arkansas, Colorado, Delaware, Hawaii, Kentucky, Maine, Minnesota, Mississippi, Missouri, Montana, Nevada, New Jersey, New Mexico, Tennessee, Utah, and Virginia—had true payment parity laws,⁷ which reimbursed telehealth as a regular office visit using modifier -95. Several states have enacted emergency telehealth expansion laws to discourage COVID-19 spread⁸; some states such as New Jersey now prohibit co-payments or out-of-pocket deductibles from all in-network insurance plans (commercial Medicare and Medicaid).^9,10 Updated legislation about COVID-19 and telemedicine can be found on the Center for Connected Health Policy website. An interactive map of laws and reimbursement policies also is available on the websites of the American Telehealth Association and the American Academy of Dermatology. The ability to charge a patient directly for telehealth services depends on the insurance provider agreement. If telehealth is a covered service, you cannot charge these patients out-of-pocket.

Teledermatology Options

For many conditions, the effectiveness and quality of teledermatology is comparable to a conventional face-to-face visit.¹¹ There are 3 types of telehealth visits:

• Store and forward: The clinician reviews images or videos and responds asynchronously,¹² similar to an email chain.
• Live interactive: The clinician uses 2-way video synchronously.¹² In states with parity laws, this method is reimbursed equally to an in-person visit.
• Remote patient monitoring: Health-related data are collected and transmitted to a remote clinician, similar to remote intensive care unit management.¹² Dermatologists are unlikely to utilize this modality.

The Virtual Visit

Follow these guidelines for practicing teledermatology: (1) ensure that the image or video is clear and that there is proper lighting, a monochromatic background, and a clear view of the anatomy necessary to evaluate; (2) dress in appropriate attire as if you were in clinic, such as scrubs, a white coat, or other professional attire; (3) begin the telehealth encounter by obtaining informed consent,¹³ according to state¹⁴ or Medicare guidelines; (4) document the location of the patient and provider; (5) for live virtual visits, document similarly to an in-person visit⁵; (6) for all other virtual care, document minutes spent on each task; and (7) select only 1 billing code per visit.

In some states, regulations for commercial and/or Medicaid plans require that other modifiers be added to billing codes, which vary plan-by-plan:

• Modifier GQ: For asynchronous care (store and forward).
• Modifier GT: For synchronous live telehealth visits.
• Modifier -95: In states where there are equal parity laws or if you are billing a commercial insurance payer (may vary by plan).

Medicare does not require any additional modifiers.¹⁵ If the plan reimburses telemedicine equally to a face-to-face visit, use regular office visit codes. The eTable¹⁶ lists billing codes and Medicare reimbursement rates.

Secure Software

Several electronic medical record systems already include secure patient communication. Other HIPAA-compliant communication options with a variety of features are available to clinicians:

• Klara allows for HIPAA-secure texting, group messaging, photograph uploads, and telephone calls.
• Doximity offers free calling and faxes.
• G Suite for health care offers HIPAA-compliant texting, emailing, and video calls through Google Voice and Google Hangouts Meet.
• Secure video chat is available on Zoom for Healthcare, VSee, Doxy.me, and other platforms.
• Multiservice platforms such as DermEngine include billing, payments, teledermatology, and teledermoscopy and allow for interprofessional consultation.

The Bottom Line

Telehealth readiness is playing a key role in containing the spread of COVID-19. In-person dermatology visits are now being limited to urgent conditions only, as per institutional guidelines.⁴



Acknowledgment
We thank Garfunkel Wild, P.C. (Great Neck, New York), for their expertise and assistance.

Clinicians from Henry Ford Health System in Detroit, Michigan, have reported the first presumptive case of acute necrotizing hemorrhagic encephalopathy associated with COVID-19.

“As the number of patients with COVID-19 increases worldwide, clinicians and radiologists should be watching for this presentation among patients presenting with COVID-19 and altered mental status,” the clinicians advise in a report published online March 31 in Radiology.

“This is significant for all providers to be aware of and looking out for in [COVID-19] patients who present with an altered level of consciousness. This complication is as devastating as severe lung disease,” Elissa Fory, MD, a neurologist with Henry Ford who was part of the team of medical experts that made the diagnosis, said in a statement.

“We need to be thinking of how we’re going to incorporate patients with severe neurological disease into our treatment paradigm,” Fory added.

Brent Griffith, MD, radiologist with Henry Ford and senior author of the case report, said the case shows “the important role that imaging can play in COVID-19 cases.”

Diagnosed via neuroimaging

The 58-year-old woman presented with a 3-day history of fever, cough, and muscle aches ― symptoms consistent with COVID-19. She was transported by ambulance to the emergency department and showed signs of confusion, lethargy, and disorientation.

The woman tested negative for influenza, but a rapid COVID-19 test confirmed severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) infection. She was later diagnosed with acute hemorrhagic necrotizing encephalopathy.

“The team had suspected encephalitis at the outset, but then back-to-back CT and MRI scans made the diagnosis,” Fory said in the statement.

Noncontrast head CT revealed “symmetric hypoattenuation within the bilateral medial thalami with a normal CT angiogram and CT venogram,” the team reports in their article. Brain MRI showed “hemorrhagic rim enhancing lesions within the bilateral thalami, medial temporal lobes, and subinsular regions.”

The patient was started on intravenous immunoglobulin but not high-dose steroids, because of concern for respiratory compromise. As of April 1, the patient was hospitalized in serious condition. Henry Ford Hospital has not provided an update.

Acute necrotizing encephalopathy (ANE) is a rare complication of viral infections, but until now, it has not been known to have occurred as a result of COVID-19 infection. ANE has been associated with intracranial “cytokine storms,” and a recent report in the Lancet suggested that a subgroup of patients with severe COVID-19 might develop a cytokine storm syndrome.

Commenting for Medscape Medical News, Cyrus A. Raji, MD, PhD, assistant professor of radiology and neurology, Washington University in St. Louis, Missouri, said, “Since this is just one report of one patient, the findings are the most preliminary we can conceive, and more research is needed to determine the extent to which COVID-19 may affect the central nervous system.”

Fory, Griffith, and Raji have disclosed no relevant financial relationships.

This article first appeared on Medscape.com.






 

Clinicians from Henry Ford Health System in Detroit, Michigan, have reported the first presumptive case of acute necrotizing hemorrhagic encephalopathy associated with COVID-19.

“As the number of patients with COVID-19 increases worldwide, clinicians and radiologists should be watching for this presentation among patients presenting with COVID-19 and altered mental status,” the clinicians advise in a report published online March 31 in Radiology.

“This is significant for all providers to be aware of and looking out for in [COVID-19] patients who present with an altered level of consciousness. This complication is as devastating as severe lung disease,” Elissa Fory, MD, a neurologist with Henry Ford who was part of the team of medical experts that made the diagnosis, said in a statement.

“We need to be thinking of how we’re going to incorporate patients with severe neurological disease into our treatment paradigm,” Fory added.

Brent Griffith, MD, radiologist with Henry Ford and senior author of the case report, said the case shows “the important role that imaging can play in COVID-19 cases.”

Diagnosed via neuroimaging

The 58-year-old woman presented with a 3-day history of fever, cough, and muscle aches ― symptoms consistent with COVID-19. She was transported by ambulance to the emergency department and showed signs of confusion, lethargy, and disorientation.

The woman tested negative for influenza, but a rapid COVID-19 test confirmed severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) infection. She was later diagnosed with acute hemorrhagic necrotizing encephalopathy.

“The team had suspected encephalitis at the outset, but then back-to-back CT and MRI scans made the diagnosis,” Fory said in the statement.

Noncontrast head CT revealed “symmetric hypoattenuation within the bilateral medial thalami with a normal CT angiogram and CT venogram,” the team reports in their article. Brain MRI showed “hemorrhagic rim enhancing lesions within the bilateral thalami, medial temporal lobes, and subinsular regions.”

The patient was started on intravenous immunoglobulin but not high-dose steroids, because of concern for respiratory compromise. As of April 1, the patient was hospitalized in serious condition. Henry Ford Hospital has not provided an update.

Acute necrotizing encephalopathy (ANE) is a rare complication of viral infections, but until now, it has not been known to have occurred as a result of COVID-19 infection. ANE has been associated with intracranial “cytokine storms,” and a recent report in the Lancet suggested that a subgroup of patients with severe COVID-19 might develop a cytokine storm syndrome.

Commenting for Medscape Medical News, Cyrus A. Raji, MD, PhD, assistant professor of radiology and neurology, Washington University in St. Louis, Missouri, said, “Since this is just one report of one patient, the findings are the most preliminary we can conceive, and more research is needed to determine the extent to which COVID-19 may affect the central nervous system.”

Fory, Griffith, and Raji have disclosed no relevant financial relationships.

This article first appeared on Medscape.com.






 

Clinicians from Henry Ford Health System in Detroit, Michigan, have reported the first presumptive case of acute necrotizing hemorrhagic encephalopathy associated with COVID-19.

“As the number of patients with COVID-19 increases worldwide, clinicians and radiologists should be watching for this presentation among patients presenting with COVID-19 and altered mental status,” the clinicians advise in a report published online March 31 in Radiology.

“This is significant for all providers to be aware of and looking out for in [COVID-19] patients who present with an altered level of consciousness. This complication is as devastating as severe lung disease,” Elissa Fory, MD, a neurologist with Henry Ford who was part of the team of medical experts that made the diagnosis, said in a statement.

“We need to be thinking of how we’re going to incorporate patients with severe neurological disease into our treatment paradigm,” Fory added.

Brent Griffith, MD, radiologist with Henry Ford and senior author of the case report, said the case shows “the important role that imaging can play in COVID-19 cases.”

Diagnosed via neuroimaging

The 58-year-old woman presented with a 3-day history of fever, cough, and muscle aches ― symptoms consistent with COVID-19. She was transported by ambulance to the emergency department and showed signs of confusion, lethargy, and disorientation.

The woman tested negative for influenza, but a rapid COVID-19 test confirmed severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) infection. She was later diagnosed with acute hemorrhagic necrotizing encephalopathy.

“The team had suspected encephalitis at the outset, but then back-to-back CT and MRI scans made the diagnosis,” Fory said in the statement.

Noncontrast head CT revealed “symmetric hypoattenuation within the bilateral medial thalami with a normal CT angiogram and CT venogram,” the team reports in their article. Brain MRI showed “hemorrhagic rim enhancing lesions within the bilateral thalami, medial temporal lobes, and subinsular regions.”

The patient was started on intravenous immunoglobulin but not high-dose steroids, because of concern for respiratory compromise. As of April 1, the patient was hospitalized in serious condition. Henry Ford Hospital has not provided an update.

Acute necrotizing encephalopathy (ANE) is a rare complication of viral infections, but until now, it has not been known to have occurred as a result of COVID-19 infection. ANE has been associated with intracranial “cytokine storms,” and a recent report in the Lancet suggested that a subgroup of patients with severe COVID-19 might develop a cytokine storm syndrome.

Commenting for Medscape Medical News, Cyrus A. Raji, MD, PhD, assistant professor of radiology and neurology, Washington University in St. Louis, Missouri, said, “Since this is just one report of one patient, the findings are the most preliminary we can conceive, and more research is needed to determine the extent to which COVID-19 may affect the central nervous system.”

Fory, Griffith, and Raji have disclosed no relevant financial relationships.

This article first appeared on Medscape.com.






 

As the COVID-19 pandemic spreads over the country, nearly half (48%) of US healthcare facilities — of various types and sizes — are already or almost out of respirators for treating patients, according to the results of a national online survey of infection prevention professionals.

Conducted during March 23-25 by the Association for Professionals in Infection Control and Epidemiology (APIC), the survey asked APIC’s 11,922 US-based infection preventionist members to rank their facilities’ supply of personal protective equipment (PPE) and key items, such as hand sanitizer and cleaning products, on a 5-point scale from having “plenty” to “none.”

Overall, 1,140 (9.6%) infection preventionists responded. Almost 70% of respondents represented a healthcare system rather than a single facility, and facilities ranged from hospitals (42.7%) to ambulatory care (17.4%) and dialysis (2.7%). The centers, from all 50 states and Washington, D.C., ranged in size from those with 1 to 50 beds to those with more than 300 beds.

Of the respondents, 233 (20.4%) reported their facilities have no protective respirators and 317 (27.8%) said they were almost out of the devices, which are needed to protect healthcare workers managing patients with COVID-19 and different infectious diseases.

The survey was posted Friday on the APIC website.

Other findings from the survey include:

• Nearly half of respondents (49.2%) said their centers lack sufficient enough face shields, with 36.5% reporting being almost out and 12.6% reporting being completely out.
• Approximately one third (31.7%) of respondents reported being completely or nearly out of face masks.
• Even simple hand sanitizer is in short supply at more than 1 in 4 facilities surveyed; 25.6% of respondents said they are almost out and 2.6% are completely out.
• Nearly 30% of respondents reported accessing supplemental PPE through state or local resources, while 24.6% said they accepted private donations of supplies.
• Fewer than one-third (31.5%) said they had sufficient gowns.
• About 28% said they were almost out of protective respirators, while 20.5% said they have none.
• Only 12.3% said they have received supplies from federal resources, including the Strategic National Stockpile, which is controlled by the Department of Health and Human Services.
• 17.2% of respondents reported resorting to DIY measures such as sewing their own masks.

In terms of staffing resources, 67% of respondents said their center has only one (or fewer) full-time–equivalent infection preventionist on staff to develop protocols for managing COVID-19. That is not surprising given the general underresourcing of infection control programs, the survey compilers said.

“Hospitals and health facilities with fewer than one full-time person on staff to direct infection prevention activities may have been disadvantaged even before the COVID-19 pandemic,” said APIC president Connie Steed, MSN, RN, in a related news release.

On a more positive note, about two thirds of facilities said they have sufficient supplies of gloves (63.4%) and hand washing soap (67.1%).

“I am concerned that many facilities will not be able to protect healthcare workers and patients from not only COVID-19, but also MRSA, C diff., and other antibiotic-resistant infections,” Steed said.

At some centers, however, the situation is not so grim — yet. The large Harris Health System in Houston has enough PPE on hand to support all infection prevention protocols in place, according to Bryan McLeod, director of corporate communications. “The PPE inventory varies from a few weeks to well over a month depending on the specific item,” McLeod told Medscape Medical News. “But everything is dependent on the utilization rate, which can vary with patient volume. Our concern is long-term resupply while demand is peaking around the world, and we continue to pursue all avenues to secure resupply.”

Above all, Steed emphasizes healthcare workers’ need for clarity. “They need to know when exactly they can expect desperately needed supplies to arrive so they don’t have to turn to unproven crisis methods for PPE,” she said. “There have been grim reports from health officials about the supply shortage for weeks and we’re not getting any answers. This is unacceptable.”

APIC is urging the federal government for immediate activation of the Cold War–era Defense Production Act and any other available means to quickly manufacture vital supplies to protect healthcare workers treating the escalating numbers of COVID-19 patients.

In the meantime, frontline healthcare workers are scouring the Internet for suppliers and begging online for donations of masks.

APIC notes that the COVID-19 pandemic is compounded by this year’s particularly severe influenza season, which had already led overcrowded healthcare facilities.  
 

This article first appeared on Medscape.com.

As the COVID-19 pandemic spreads over the country, nearly half (48%) of US healthcare facilities — of various types and sizes — are already or almost out of respirators for treating patients, according to the results of a national online survey of infection prevention professionals.

Conducted during March 23-25 by the Association for Professionals in Infection Control and Epidemiology (APIC), the survey asked APIC’s 11,922 US-based infection preventionist members to rank their facilities’ supply of personal protective equipment (PPE) and key items, such as hand sanitizer and cleaning products, on a 5-point scale from having “plenty” to “none.”

Overall, 1,140 (9.6%) infection preventionists responded. Almost 70% of respondents represented a healthcare system rather than a single facility, and facilities ranged from hospitals (42.7%) to ambulatory care (17.4%) and dialysis (2.7%). The centers, from all 50 states and Washington, D.C., ranged in size from those with 1 to 50 beds to those with more than 300 beds.

Of the respondents, 233 (20.4%) reported their facilities have no protective respirators and 317 (27.8%) said they were almost out of the devices, which are needed to protect healthcare workers managing patients with COVID-19 and different infectious diseases.

The survey was posted Friday on the APIC website.

Other findings from the survey include:

• Nearly half of respondents (49.2%) said their centers lack sufficient enough face shields, with 36.5% reporting being almost out and 12.6% reporting being completely out.
• Approximately one third (31.7%) of respondents reported being completely or nearly out of face masks.
• Even simple hand sanitizer is in short supply at more than 1 in 4 facilities surveyed; 25.6% of respondents said they are almost out and 2.6% are completely out.
• Nearly 30% of respondents reported accessing supplemental PPE through state or local resources, while 24.6% said they accepted private donations of supplies.
• Fewer than one-third (31.5%) said they had sufficient gowns.
• About 28% said they were almost out of protective respirators, while 20.5% said they have none.
• Only 12.3% said they have received supplies from federal resources, including the Strategic National Stockpile, which is controlled by the Department of Health and Human Services.
• 17.2% of respondents reported resorting to DIY measures such as sewing their own masks.

In terms of staffing resources, 67% of respondents said their center has only one (or fewer) full-time–equivalent infection preventionist on staff to develop protocols for managing COVID-19. That is not surprising given the general underresourcing of infection control programs, the survey compilers said.

“Hospitals and health facilities with fewer than one full-time person on staff to direct infection prevention activities may have been disadvantaged even before the COVID-19 pandemic,” said APIC president Connie Steed, MSN, RN, in a related news release.

On a more positive note, about two thirds of facilities said they have sufficient supplies of gloves (63.4%) and hand washing soap (67.1%).

“I am concerned that many facilities will not be able to protect healthcare workers and patients from not only COVID-19, but also MRSA, C diff., and other antibiotic-resistant infections,” Steed said.

At some centers, however, the situation is not so grim — yet. The large Harris Health System in Houston has enough PPE on hand to support all infection prevention protocols in place, according to Bryan McLeod, director of corporate communications. “The PPE inventory varies from a few weeks to well over a month depending on the specific item,” McLeod told Medscape Medical News. “But everything is dependent on the utilization rate, which can vary with patient volume. Our concern is long-term resupply while demand is peaking around the world, and we continue to pursue all avenues to secure resupply.”

Above all, Steed emphasizes healthcare workers’ need for clarity. “They need to know when exactly they can expect desperately needed supplies to arrive so they don’t have to turn to unproven crisis methods for PPE,” she said. “There have been grim reports from health officials about the supply shortage for weeks and we’re not getting any answers. This is unacceptable.”

APIC is urging the federal government for immediate activation of the Cold War–era Defense Production Act and any other available means to quickly manufacture vital supplies to protect healthcare workers treating the escalating numbers of COVID-19 patients.

In the meantime, frontline healthcare workers are scouring the Internet for suppliers and begging online for donations of masks.

APIC notes that the COVID-19 pandemic is compounded by this year’s particularly severe influenza season, which had already led overcrowded healthcare facilities.  
 

This article first appeared on Medscape.com.

As the COVID-19 pandemic spreads over the country, nearly half (48%) of US healthcare facilities — of various types and sizes — are already or almost out of respirators for treating patients, according to the results of a national online survey of infection prevention professionals.

Conducted during March 23-25 by the Association for Professionals in Infection Control and Epidemiology (APIC), the survey asked APIC’s 11,922 US-based infection preventionist members to rank their facilities’ supply of personal protective equipment (PPE) and key items, such as hand sanitizer and cleaning products, on a 5-point scale from having “plenty” to “none.”

Overall, 1,140 (9.6%) infection preventionists responded. Almost 70% of respondents represented a healthcare system rather than a single facility, and facilities ranged from hospitals (42.7%) to ambulatory care (17.4%) and dialysis (2.7%). The centers, from all 50 states and Washington, D.C., ranged in size from those with 1 to 50 beds to those with more than 300 beds.

Of the respondents, 233 (20.4%) reported their facilities have no protective respirators and 317 (27.8%) said they were almost out of the devices, which are needed to protect healthcare workers managing patients with COVID-19 and different infectious diseases.

The survey was posted Friday on the APIC website.

Other findings from the survey include:

• Nearly half of respondents (49.2%) said their centers lack sufficient enough face shields, with 36.5% reporting being almost out and 12.6% reporting being completely out.
• Approximately one third (31.7%) of respondents reported being completely or nearly out of face masks.
• Even simple hand sanitizer is in short supply at more than 1 in 4 facilities surveyed; 25.6% of respondents said they are almost out and 2.6% are completely out.
• Nearly 30% of respondents reported accessing supplemental PPE through state or local resources, while 24.6% said they accepted private donations of supplies.
• Fewer than one-third (31.5%) said they had sufficient gowns.
• About 28% said they were almost out of protective respirators, while 20.5% said they have none.
• Only 12.3% said they have received supplies from federal resources, including the Strategic National Stockpile, which is controlled by the Department of Health and Human Services.
• 17.2% of respondents reported resorting to DIY measures such as sewing their own masks.

In terms of staffing resources, 67% of respondents said their center has only one (or fewer) full-time–equivalent infection preventionist on staff to develop protocols for managing COVID-19. That is not surprising given the general underresourcing of infection control programs, the survey compilers said.

“Hospitals and health facilities with fewer than one full-time person on staff to direct infection prevention activities may have been disadvantaged even before the COVID-19 pandemic,” said APIC president Connie Steed, MSN, RN, in a related news release.

On a more positive note, about two thirds of facilities said they have sufficient supplies of gloves (63.4%) and hand washing soap (67.1%).

“I am concerned that many facilities will not be able to protect healthcare workers and patients from not only COVID-19, but also MRSA, C diff., and other antibiotic-resistant infections,” Steed said.

At some centers, however, the situation is not so grim — yet. The large Harris Health System in Houston has enough PPE on hand to support all infection prevention protocols in place, according to Bryan McLeod, director of corporate communications. “The PPE inventory varies from a few weeks to well over a month depending on the specific item,” McLeod told Medscape Medical News. “But everything is dependent on the utilization rate, which can vary with patient volume. Our concern is long-term resupply while demand is peaking around the world, and we continue to pursue all avenues to secure resupply.”

Above all, Steed emphasizes healthcare workers’ need for clarity. “They need to know when exactly they can expect desperately needed supplies to arrive so they don’t have to turn to unproven crisis methods for PPE,” she said. “There have been grim reports from health officials about the supply shortage for weeks and we’re not getting any answers. This is unacceptable.”

APIC is urging the federal government for immediate activation of the Cold War–era Defense Production Act and any other available means to quickly manufacture vital supplies to protect healthcare workers treating the escalating numbers of COVID-19 patients.

In the meantime, frontline healthcare workers are scouring the Internet for suppliers and begging online for donations of masks.

APIC notes that the COVID-19 pandemic is compounded by this year’s particularly severe influenza season, which had already led overcrowded healthcare facilities.  
 

This article first appeared on Medscape.com.

Skin manifestations were observed in about one-fifth of a group of patients with COVID-19 in the Alessandro Manzoni Hospital in Lecco, in northern Italy.

Courtesy of Dr. Randy Jacobs

Dermatologists there were pulled from their usual duty to help with the pandemic and looked at what was going on with the skin in 148 COVID-19 inpatients. They excluded 60 who had started new drugs within 15 days to rule out acute drug reactions, then reported what they saw (J Eur Acad Dermatol Venereol. 2020 Mar 26. doi: 10.1111/jdv.16387).

Of the 88 COVID-19 patients, 20.5% developed skin manifestations. Eight of the 18 (44%) had skin eruptions at symptom onset, and the rest after hospitalization. Fourteen (78%) had red rashes, three had widespread urticaria, and one had chickenpox-like vesicles. The most commonly affected area was the trunk. Itching was mild or absent, and lesions usually healed up in a few days. Most importantly, skin manifestations did not correlate with disease severity.

These skin manifestations “are similar to cutaneous involvement occurring during common viral infections,” said the author of the report, Sebastiano Recalcati, MD, a dermatologist at Alessandro Manzoni Hospital.

COVID-19 skin manifestations can cloud the diagnosis, according to the authors of another report from Thailand, where the first case of COVID-19 outside of China was reported.

They described a case of a COVID-19 infection in a Bangkok hospital that masqueraded as dengue fever. A person there presented with only a skin rash, petechiae, and a low platelet count, and was diagnosed with Dengue because that’s exactly what it looked like, the authors wrote (J Am Acad Dermatol. 2020 Mar 22. pii: S0190-9622[20]30454-0. doi: 10.1016/j.jaad.2020.03.036).

The correct diagnosis, COVID-19, was made at a tertiary care center after the patient was admitted with respiratory problems.

“There is a possibility that a COVID-19 patient might initially present with a skin rash that can be misdiagnosed as another common disease. ... The practitioner should recognize the possibility that the patient might have only a skin rash” at first, said the lead author of that report, Beuy Joob, PhD, of the Sanitation1 Medical Academic Center, Bangkok, and a coauthor.

There are similar reports in the United States, too. “Many have wondered if COVID-19 presents with any particular skin changes. The answer is yes,” said Randy Jacobs, MD, an assistant clinical professor of dermatology at the University of California, Riverside, who also has a private practice in southern California.

“COVID-19 can feature signs of small blood vessel occlusion. These can be petechiae or tiny bruises, and transient livedoid eruptions,” he said in an interview.

Dr. Jacobs had a 67-year-old patient who presented with a low fever, nasal congestion, postnasal drip, and a wet cough but no shortness of breath. It looked like a common cold. But a week later, the man had a nonpruritic blanching livedoid vascular eruption on his right anterior thigh, and blood in his urine, and he felt weak. The vascular eruption and bloody urine resolved in 24 hours, but the COVID-19 test came back positive and his cough became dry and hacking, and the weakness persisted. He’s in a hospital now and on oxygen, but not ventilated so far.

“Another dermatologist friend of mine also reported a similar transient COVID-19 unilateral livedoid eruption,” Dr. Jacobs said.

It suggests vaso-occlusion. Whether it’s neurogenic, microthrombotic, or immune complex mediated is unknown, but it’s “a skin finding that can help clinicians as they work up their patients with COVID-19 symptoms,” he noted.

Dr. Jacobs and the authors of the studies had no disclosures.

[email protected]

Skin manifestations were observed in about one-fifth of a group of patients with COVID-19 in the Alessandro Manzoni Hospital in Lecco, in northern Italy.

Courtesy of Dr. Randy Jacobs

Dermatologists there were pulled from their usual duty to help with the pandemic and looked at what was going on with the skin in 148 COVID-19 inpatients. They excluded 60 who had started new drugs within 15 days to rule out acute drug reactions, then reported what they saw (J Eur Acad Dermatol Venereol. 2020 Mar 26. doi: 10.1111/jdv.16387).

Of the 88 COVID-19 patients, 20.5% developed skin manifestations. Eight of the 18 (44%) had skin eruptions at symptom onset, and the rest after hospitalization. Fourteen (78%) had red rashes, three had widespread urticaria, and one had chickenpox-like vesicles. The most commonly affected area was the trunk. Itching was mild or absent, and lesions usually healed up in a few days. Most importantly, skin manifestations did not correlate with disease severity.

These skin manifestations “are similar to cutaneous involvement occurring during common viral infections,” said the author of the report, Sebastiano Recalcati, MD, a dermatologist at Alessandro Manzoni Hospital.

COVID-19 skin manifestations can cloud the diagnosis, according to the authors of another report from Thailand, where the first case of COVID-19 outside of China was reported.

They described a case of a COVID-19 infection in a Bangkok hospital that masqueraded as dengue fever. A person there presented with only a skin rash, petechiae, and a low platelet count, and was diagnosed with Dengue because that’s exactly what it looked like, the authors wrote (J Am Acad Dermatol. 2020 Mar 22. pii: S0190-9622[20]30454-0. doi: 10.1016/j.jaad.2020.03.036).

The correct diagnosis, COVID-19, was made at a tertiary care center after the patient was admitted with respiratory problems.

“There is a possibility that a COVID-19 patient might initially present with a skin rash that can be misdiagnosed as another common disease. ... The practitioner should recognize the possibility that the patient might have only a skin rash” at first, said the lead author of that report, Beuy Joob, PhD, of the Sanitation1 Medical Academic Center, Bangkok, and a coauthor.

There are similar reports in the United States, too. “Many have wondered if COVID-19 presents with any particular skin changes. The answer is yes,” said Randy Jacobs, MD, an assistant clinical professor of dermatology at the University of California, Riverside, who also has a private practice in southern California.

“COVID-19 can feature signs of small blood vessel occlusion. These can be petechiae or tiny bruises, and transient livedoid eruptions,” he said in an interview.

Dr. Jacobs had a 67-year-old patient who presented with a low fever, nasal congestion, postnasal drip, and a wet cough but no shortness of breath. It looked like a common cold. But a week later, the man had a nonpruritic blanching livedoid vascular eruption on his right anterior thigh, and blood in his urine, and he felt weak. The vascular eruption and bloody urine resolved in 24 hours, but the COVID-19 test came back positive and his cough became dry and hacking, and the weakness persisted. He’s in a hospital now and on oxygen, but not ventilated so far.

“Another dermatologist friend of mine also reported a similar transient COVID-19 unilateral livedoid eruption,” Dr. Jacobs said.

It suggests vaso-occlusion. Whether it’s neurogenic, microthrombotic, or immune complex mediated is unknown, but it’s “a skin finding that can help clinicians as they work up their patients with COVID-19 symptoms,” he noted.

Dr. Jacobs and the authors of the studies had no disclosures.

[email protected]

Skin manifestations were observed in about one-fifth of a group of patients with COVID-19 in the Alessandro Manzoni Hospital in Lecco, in northern Italy.

Courtesy of Dr. Randy Jacobs

Dermatologists there were pulled from their usual duty to help with the pandemic and looked at what was going on with the skin in 148 COVID-19 inpatients. They excluded 60 who had started new drugs within 15 days to rule out acute drug reactions, then reported what they saw (J Eur Acad Dermatol Venereol. 2020 Mar 26. doi: 10.1111/jdv.16387).

Of the 88 COVID-19 patients, 20.5% developed skin manifestations. Eight of the 18 (44%) had skin eruptions at symptom onset, and the rest after hospitalization. Fourteen (78%) had red rashes, three had widespread urticaria, and one had chickenpox-like vesicles. The most commonly affected area was the trunk. Itching was mild or absent, and lesions usually healed up in a few days. Most importantly, skin manifestations did not correlate with disease severity.

These skin manifestations “are similar to cutaneous involvement occurring during common viral infections,” said the author of the report, Sebastiano Recalcati, MD, a dermatologist at Alessandro Manzoni Hospital.

COVID-19 skin manifestations can cloud the diagnosis, according to the authors of another report from Thailand, where the first case of COVID-19 outside of China was reported.

They described a case of a COVID-19 infection in a Bangkok hospital that masqueraded as dengue fever. A person there presented with only a skin rash, petechiae, and a low platelet count, and was diagnosed with Dengue because that’s exactly what it looked like, the authors wrote (J Am Acad Dermatol. 2020 Mar 22. pii: S0190-9622[20]30454-0. doi: 10.1016/j.jaad.2020.03.036).

The correct diagnosis, COVID-19, was made at a tertiary care center after the patient was admitted with respiratory problems.

“There is a possibility that a COVID-19 patient might initially present with a skin rash that can be misdiagnosed as another common disease. ... The practitioner should recognize the possibility that the patient might have only a skin rash” at first, said the lead author of that report, Beuy Joob, PhD, of the Sanitation1 Medical Academic Center, Bangkok, and a coauthor.

There are similar reports in the United States, too. “Many have wondered if COVID-19 presents with any particular skin changes. The answer is yes,” said Randy Jacobs, MD, an assistant clinical professor of dermatology at the University of California, Riverside, who also has a private practice in southern California.

“COVID-19 can feature signs of small blood vessel occlusion. These can be petechiae or tiny bruises, and transient livedoid eruptions,” he said in an interview.

Dr. Jacobs had a 67-year-old patient who presented with a low fever, nasal congestion, postnasal drip, and a wet cough but no shortness of breath. It looked like a common cold. But a week later, the man had a nonpruritic blanching livedoid vascular eruption on his right anterior thigh, and blood in his urine, and he felt weak. The vascular eruption and bloody urine resolved in 24 hours, but the COVID-19 test came back positive and his cough became dry and hacking, and the weakness persisted. He’s in a hospital now and on oxygen, but not ventilated so far.

“Another dermatologist friend of mine also reported a similar transient COVID-19 unilateral livedoid eruption,” Dr. Jacobs said.

It suggests vaso-occlusion. Whether it’s neurogenic, microthrombotic, or immune complex mediated is unknown, but it’s “a skin finding that can help clinicians as they work up their patients with COVID-19 symptoms,” he noted.

Dr. Jacobs and the authors of the studies had no disclosures.

[email protected]

Asymptomatic transmission is the most likely explanation for 6.4% of the locally acquired COVID-19 infections in Singapore, based on clinical and epidemiologic data for all cases reported in the country by March 16.

As of that date, there had been 243 cases of COVID-19, of which 157 were locally acquired. Among those 157 were 10 cases (6.4%) that involved probable presymptomatic transmission, Wycliffe E. Wei, MPH, and associates said April 1 in the Morbidity and Mortality Weekly Report.

They defined presymptomatic transmission “as the transmission of SARS-CoV-2 from an infected person (source patient) to a secondary patient before the source patient developed symptoms, as ascertained by exposure and symptom onset dates, with no evidence that the secondary patient had been exposed to anyone else with COVID-19.”

Investigation of all 243 cases in Singapore identified seven clusters, each involving two to five patients, as sources of presymptomatic transmission. In four of the clusters, the “exposure occurred 1-3 days before the source patient developed symptoms,” said Mr. Wei of the Singapore Ministry of Health and associates.

These findings, along with evidence from Chinese studies – one of which reported presymptomatic transmission in 12.6% of cases – support “the likelihood that viral shedding can occur in the absence of symptoms and before symptom onset,” they said.

[email protected]

SOURCE: Wei WE et al. MMWR. 2020 Apr 1;69(ePub):1-5. doi: 10.15585/mmwr.mm6914e1.

Asymptomatic transmission is the most likely explanation for 6.4% of the locally acquired COVID-19 infections in Singapore, based on clinical and epidemiologic data for all cases reported in the country by March 16.

As of that date, there had been 243 cases of COVID-19, of which 157 were locally acquired. Among those 157 were 10 cases (6.4%) that involved probable presymptomatic transmission, Wycliffe E. Wei, MPH, and associates said April 1 in the Morbidity and Mortality Weekly Report.

They defined presymptomatic transmission “as the transmission of SARS-CoV-2 from an infected person (source patient) to a secondary patient before the source patient developed symptoms, as ascertained by exposure and symptom onset dates, with no evidence that the secondary patient had been exposed to anyone else with COVID-19.”

Investigation of all 243 cases in Singapore identified seven clusters, each involving two to five patients, as sources of presymptomatic transmission. In four of the clusters, the “exposure occurred 1-3 days before the source patient developed symptoms,” said Mr. Wei of the Singapore Ministry of Health and associates.

These findings, along with evidence from Chinese studies – one of which reported presymptomatic transmission in 12.6% of cases – support “the likelihood that viral shedding can occur in the absence of symptoms and before symptom onset,” they said.

[email protected]

SOURCE: Wei WE et al. MMWR. 2020 Apr 1;69(ePub):1-5. doi: 10.15585/mmwr.mm6914e1.

Asymptomatic transmission is the most likely explanation for 6.4% of the locally acquired COVID-19 infections in Singapore, based on clinical and epidemiologic data for all cases reported in the country by March 16.

As of that date, there had been 243 cases of COVID-19, of which 157 were locally acquired. Among those 157 were 10 cases (6.4%) that involved probable presymptomatic transmission, Wycliffe E. Wei, MPH, and associates said April 1 in the Morbidity and Mortality Weekly Report.

They defined presymptomatic transmission “as the transmission of SARS-CoV-2 from an infected person (source patient) to a secondary patient before the source patient developed symptoms, as ascertained by exposure and symptom onset dates, with no evidence that the secondary patient had been exposed to anyone else with COVID-19.”

Investigation of all 243 cases in Singapore identified seven clusters, each involving two to five patients, as sources of presymptomatic transmission. In four of the clusters, the “exposure occurred 1-3 days before the source patient developed symptoms,” said Mr. Wei of the Singapore Ministry of Health and associates.

These findings, along with evidence from Chinese studies – one of which reported presymptomatic transmission in 12.6% of cases – support “the likelihood that viral shedding can occur in the absence of symptoms and before symptom onset,” they said.

[email protected]

SOURCE: Wei WE et al. MMWR. 2020 Apr 1;69(ePub):1-5. doi: 10.15585/mmwr.mm6914e1.