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European cancer centers restructure care in the era of COVID-19
Delivering cancer care during the COVID-19 pandemic has proved particularly challenging, as minimizing the risk of infection must be balanced with maintaining optimal outcomes.
Healthcare systems and oncologists have had to reorganize standard oncologic care in order to protect vulnerable patients from exposure to COVID-19 as well as deal with pandemic-related issues of equipment and staffing shortages.
A new article now describes how seven cancer centers in Europe rapidly reorganized their oncologic services and are tackling this crisis, as well as offering guidance to other institutions.
This was a major undertaking, to work out a system where patients can still get care but in a safer manner, explained coauthor Emile Voest, MD, medical director of the Netherlands Cancer Institute in Amsterdam.
“Decisions needed to be taken based on availability of personnel, protective materials, and urgencies,” he told Medscape Medical News. “Because every country had its own speed of development of the COVID pandemic, there were different scenarios in all institutions, but all with a common factor of key expertise on how to de-escalate in a safe manner.”
The article was published April 16 in Nature Medicine.
The Netherlands Cancer Institute (the Netherlands), Karolinska Institute (Sweden), Institute Gustave Roussy (France), Cambridge Cancer Center (United Kingdom), Istituto Nazionale dei Tumori di Milano (Italy), German Cancer Research Center (Germany), and Vall d’Hebron Institute of Oncology (Spain) have been working closely together in a legal entity since 2014, and have created ‘Cancer Core Europe’ (CCE). The goal is to “maximize coherence and critical mass in cancer research,” the authors note.
The consortium represents roughly 60,000 patients with newly diagnosed cancer, delivers approximately 300,000 treatment courses, and conducts about 1.2 million consultations annually, with more than 1,500 ongoing clinical trials. In a joint effort, the centers collected, translated, and compared the guidelines that had been put in place to treat patients with cancer during the COVID-19 pandemic.
Cancer treatment is multidisciplinary and involves many specialties including surgery, radiology, pathology, radiation oncology, and medical oncology. Coordinating care among disciplines is a very complex process, Voest noted.
“Changing treatment also means that you need to reconsider capacities and requirements,” he said. “Hospitals have installed crisis teams that were very good at coordinating these efforts.”
Restructuring care
Cancer care had to be reorganized on multiple levels, and the CCE centers looked at several aspects that needed to be accounted for, to ensure continuity in cancer care.
“The biggest challenge for the NHS and other healthcare systems is the surge of patients requiring oxygen and/or intensive care, and the nature and infectiousness of the virus,” said coauthor Carlos Caldas, MD, FMedSci, professor of cancer medicine at the University of Cambridge, United Kingdom. “In hospitals that are mostly run close to capacity, and where all kinds of patients are treated, this has created major resource and logistical problems.”
For regular clinical activities, the institutions with dedicated cancer centers (German Cancer Research Center, Institute Gustave Roussy, Istituto Nazionale dei Tumori di Milano, and Netherlands Cancer Institute) have attempted to stay COVID-19 free. This policy would in turn help ensure that sufficient clinical and intensive-care capacity could be reserved for critical cancer surgeries or management of treatment-related side effects, and allow hospitals outside of the CCE to transfer patients with cancer to these centers. The general hospitals can then focus on caring for patients with COVID-19, as well as other illnesses/injuries that require inpatient care.
As the CCE centers located within general hospitals (Cambridge Cancer Center, Vall d’Hebron Institute of Oncology and Karolinska Institute) have to admit patients with suspected and positive cases of COVID-19, being “COVID-19 free” was never a realistic or pursued goal.
The authors note that it is the responsibility of all healthcare professionals to ensure patients are not exposed to COVID-19, and this has meant minimizing hospital visits and person-to-person contact. For example, whenever possible, consultations take place via telephone calls or over the Internet, and nonurgent appointments that would require a patient’s physical presence at the clinic have been postponed. Visitors are also not permitted to accompany patients when admitted to the hospital or during procedures.
Standard-of-care treatment regimens have been adapted across all centers to minimize the number of hospital visits and hospitalizations and prevent “anticancer treatment-induced” complications of COVID-19.
To minimize visits and hospitalizations, strategies include converting intravenous treatments to oral or subcutaneous regimens when possible; switching from cytotoxic chemotherapy to a less-toxic approach to minimize the risk of complications requiring hospitalization; or to pause therapies when possible (stable disease reached or better). In addition, nonemergency surgeries have been postponed or replaced by radiotherapy.
To prevent anticancer treatment-induced complications of COVID-19, most centers use the paradigm that the added benefit for tumor control should be weighed against the potential risk for COVID-19–related morbidity and mortality. To prevent or reduce the risk of neutropenia and lymphopenia, for example, all centers have suggested a de-escalation of cytotoxic chemotherapy or targeted treatment strategies, or to forgo second or subsequent lines of palliative treatments if response rates from up-front therapy are low.
Some of these changes may be here to stay, noted Caldas. “One of the positive messages that comes out of this is that, clearly, care can be delivered in a safe and compassionate manner without requiring as many hospital visits as in the pre-COVID-19 era,” he said. “In the future, we will take heed of the COVID-19 experience to improve delivery of cancer care.”
Capacity of facilities
Many healthcare systems have become overwhelmed as the pandemic has intensified, thus making it necessary to prioritize. To prepare for this possibility, CCE centers have established protocols to categorize and prioritize patients for systemic treatment or surgery. While the protocols vary by center, they are comparable with one another as they prioritize on the basis of anticipated treatment outcome, the authors note.
The guidelines in CCE centers unanimously recommend that neoadjuvant therapies and curative surgeries be the top priority, for the times when operating room and/or ICU capacity is limited. As an alternative, neoadjuvant systemic treatments may be initiated or extended to postpone surgery, and other nonsurgical interventions can be considered.
In addition, some centers agree that certain elective surgeries can be safely delayed if backed by scientific evidence. As an example, an 11-week deferment of surgery may be acceptable for patients with rectal cancer after downstaging.
Cancer centers may also need to upscale and downscale quickly, depending on how the pandemic evolves, and many have already outlined scenarios to prepare for increasing or decreasing their capacity using phased approaches.
The Netherlands Cancer Institute, for example, has defined four phases of increasing severity; in Germany, capacity planning has been coordinated among 18 hospitals and the federal ministry of health, in order to prevent shortages of cancer services.
“We note that the optimal downscaling strategies depend on country- and center-specific capacities and preferences,” they write. “Therefore, it is difficult to propose a common schedule, and it will be most effective if hospitals outline their own phase-specific downscaling strategies based on the prioritization schemes and practical handles discussed above.”
Future research
Better strategies will be needed to reduce the impact of COVID-19 in cancer care, and four research priorities were identified to allow for evidence-based adjustments of cancer care protocols while the pandemic continues:
- Collect real-world data about the effects of adjustment and de-escalation of treatment regimens on outcomes
- Determine the incidence of COVID-19 in both the general population and among patients with cancer who have received systemic therapies, with large-scale serological testing
- Develop an epidemiological model that will allow estimates of the cumulative incidence of COVID-19 for a patient with cancer, within a specific time frame
- Determine COVID-19 related morbidity and mortality in patients with cancer who have been treated with systemic therapies and/or granulocyte colony-stimulating factor (G-CSF). Several projects are currently underway, such as the UK Coronavirus Cancer Monitoring Project.
The authors have disclosed no relevant financial relationships.
This article first appeared on Medscape.com.
Delivering cancer care during the COVID-19 pandemic has proved particularly challenging, as minimizing the risk of infection must be balanced with maintaining optimal outcomes.
Healthcare systems and oncologists have had to reorganize standard oncologic care in order to protect vulnerable patients from exposure to COVID-19 as well as deal with pandemic-related issues of equipment and staffing shortages.
A new article now describes how seven cancer centers in Europe rapidly reorganized their oncologic services and are tackling this crisis, as well as offering guidance to other institutions.
This was a major undertaking, to work out a system where patients can still get care but in a safer manner, explained coauthor Emile Voest, MD, medical director of the Netherlands Cancer Institute in Amsterdam.
“Decisions needed to be taken based on availability of personnel, protective materials, and urgencies,” he told Medscape Medical News. “Because every country had its own speed of development of the COVID pandemic, there were different scenarios in all institutions, but all with a common factor of key expertise on how to de-escalate in a safe manner.”
The article was published April 16 in Nature Medicine.
The Netherlands Cancer Institute (the Netherlands), Karolinska Institute (Sweden), Institute Gustave Roussy (France), Cambridge Cancer Center (United Kingdom), Istituto Nazionale dei Tumori di Milano (Italy), German Cancer Research Center (Germany), and Vall d’Hebron Institute of Oncology (Spain) have been working closely together in a legal entity since 2014, and have created ‘Cancer Core Europe’ (CCE). The goal is to “maximize coherence and critical mass in cancer research,” the authors note.
The consortium represents roughly 60,000 patients with newly diagnosed cancer, delivers approximately 300,000 treatment courses, and conducts about 1.2 million consultations annually, with more than 1,500 ongoing clinical trials. In a joint effort, the centers collected, translated, and compared the guidelines that had been put in place to treat patients with cancer during the COVID-19 pandemic.
Cancer treatment is multidisciplinary and involves many specialties including surgery, radiology, pathology, radiation oncology, and medical oncology. Coordinating care among disciplines is a very complex process, Voest noted.
“Changing treatment also means that you need to reconsider capacities and requirements,” he said. “Hospitals have installed crisis teams that were very good at coordinating these efforts.”
Restructuring care
Cancer care had to be reorganized on multiple levels, and the CCE centers looked at several aspects that needed to be accounted for, to ensure continuity in cancer care.
“The biggest challenge for the NHS and other healthcare systems is the surge of patients requiring oxygen and/or intensive care, and the nature and infectiousness of the virus,” said coauthor Carlos Caldas, MD, FMedSci, professor of cancer medicine at the University of Cambridge, United Kingdom. “In hospitals that are mostly run close to capacity, and where all kinds of patients are treated, this has created major resource and logistical problems.”
For regular clinical activities, the institutions with dedicated cancer centers (German Cancer Research Center, Institute Gustave Roussy, Istituto Nazionale dei Tumori di Milano, and Netherlands Cancer Institute) have attempted to stay COVID-19 free. This policy would in turn help ensure that sufficient clinical and intensive-care capacity could be reserved for critical cancer surgeries or management of treatment-related side effects, and allow hospitals outside of the CCE to transfer patients with cancer to these centers. The general hospitals can then focus on caring for patients with COVID-19, as well as other illnesses/injuries that require inpatient care.
As the CCE centers located within general hospitals (Cambridge Cancer Center, Vall d’Hebron Institute of Oncology and Karolinska Institute) have to admit patients with suspected and positive cases of COVID-19, being “COVID-19 free” was never a realistic or pursued goal.
The authors note that it is the responsibility of all healthcare professionals to ensure patients are not exposed to COVID-19, and this has meant minimizing hospital visits and person-to-person contact. For example, whenever possible, consultations take place via telephone calls or over the Internet, and nonurgent appointments that would require a patient’s physical presence at the clinic have been postponed. Visitors are also not permitted to accompany patients when admitted to the hospital or during procedures.
Standard-of-care treatment regimens have been adapted across all centers to minimize the number of hospital visits and hospitalizations and prevent “anticancer treatment-induced” complications of COVID-19.
To minimize visits and hospitalizations, strategies include converting intravenous treatments to oral or subcutaneous regimens when possible; switching from cytotoxic chemotherapy to a less-toxic approach to minimize the risk of complications requiring hospitalization; or to pause therapies when possible (stable disease reached or better). In addition, nonemergency surgeries have been postponed or replaced by radiotherapy.
To prevent anticancer treatment-induced complications of COVID-19, most centers use the paradigm that the added benefit for tumor control should be weighed against the potential risk for COVID-19–related morbidity and mortality. To prevent or reduce the risk of neutropenia and lymphopenia, for example, all centers have suggested a de-escalation of cytotoxic chemotherapy or targeted treatment strategies, or to forgo second or subsequent lines of palliative treatments if response rates from up-front therapy are low.
Some of these changes may be here to stay, noted Caldas. “One of the positive messages that comes out of this is that, clearly, care can be delivered in a safe and compassionate manner without requiring as many hospital visits as in the pre-COVID-19 era,” he said. “In the future, we will take heed of the COVID-19 experience to improve delivery of cancer care.”
Capacity of facilities
Many healthcare systems have become overwhelmed as the pandemic has intensified, thus making it necessary to prioritize. To prepare for this possibility, CCE centers have established protocols to categorize and prioritize patients for systemic treatment or surgery. While the protocols vary by center, they are comparable with one another as they prioritize on the basis of anticipated treatment outcome, the authors note.
The guidelines in CCE centers unanimously recommend that neoadjuvant therapies and curative surgeries be the top priority, for the times when operating room and/or ICU capacity is limited. As an alternative, neoadjuvant systemic treatments may be initiated or extended to postpone surgery, and other nonsurgical interventions can be considered.
In addition, some centers agree that certain elective surgeries can be safely delayed if backed by scientific evidence. As an example, an 11-week deferment of surgery may be acceptable for patients with rectal cancer after downstaging.
Cancer centers may also need to upscale and downscale quickly, depending on how the pandemic evolves, and many have already outlined scenarios to prepare for increasing or decreasing their capacity using phased approaches.
The Netherlands Cancer Institute, for example, has defined four phases of increasing severity; in Germany, capacity planning has been coordinated among 18 hospitals and the federal ministry of health, in order to prevent shortages of cancer services.
“We note that the optimal downscaling strategies depend on country- and center-specific capacities and preferences,” they write. “Therefore, it is difficult to propose a common schedule, and it will be most effective if hospitals outline their own phase-specific downscaling strategies based on the prioritization schemes and practical handles discussed above.”
Future research
Better strategies will be needed to reduce the impact of COVID-19 in cancer care, and four research priorities were identified to allow for evidence-based adjustments of cancer care protocols while the pandemic continues:
- Collect real-world data about the effects of adjustment and de-escalation of treatment regimens on outcomes
- Determine the incidence of COVID-19 in both the general population and among patients with cancer who have received systemic therapies, with large-scale serological testing
- Develop an epidemiological model that will allow estimates of the cumulative incidence of COVID-19 for a patient with cancer, within a specific time frame
- Determine COVID-19 related morbidity and mortality in patients with cancer who have been treated with systemic therapies and/or granulocyte colony-stimulating factor (G-CSF). Several projects are currently underway, such as the UK Coronavirus Cancer Monitoring Project.
The authors have disclosed no relevant financial relationships.
This article first appeared on Medscape.com.
Delivering cancer care during the COVID-19 pandemic has proved particularly challenging, as minimizing the risk of infection must be balanced with maintaining optimal outcomes.
Healthcare systems and oncologists have had to reorganize standard oncologic care in order to protect vulnerable patients from exposure to COVID-19 as well as deal with pandemic-related issues of equipment and staffing shortages.
A new article now describes how seven cancer centers in Europe rapidly reorganized their oncologic services and are tackling this crisis, as well as offering guidance to other institutions.
This was a major undertaking, to work out a system where patients can still get care but in a safer manner, explained coauthor Emile Voest, MD, medical director of the Netherlands Cancer Institute in Amsterdam.
“Decisions needed to be taken based on availability of personnel, protective materials, and urgencies,” he told Medscape Medical News. “Because every country had its own speed of development of the COVID pandemic, there were different scenarios in all institutions, but all with a common factor of key expertise on how to de-escalate in a safe manner.”
The article was published April 16 in Nature Medicine.
The Netherlands Cancer Institute (the Netherlands), Karolinska Institute (Sweden), Institute Gustave Roussy (France), Cambridge Cancer Center (United Kingdom), Istituto Nazionale dei Tumori di Milano (Italy), German Cancer Research Center (Germany), and Vall d’Hebron Institute of Oncology (Spain) have been working closely together in a legal entity since 2014, and have created ‘Cancer Core Europe’ (CCE). The goal is to “maximize coherence and critical mass in cancer research,” the authors note.
The consortium represents roughly 60,000 patients with newly diagnosed cancer, delivers approximately 300,000 treatment courses, and conducts about 1.2 million consultations annually, with more than 1,500 ongoing clinical trials. In a joint effort, the centers collected, translated, and compared the guidelines that had been put in place to treat patients with cancer during the COVID-19 pandemic.
Cancer treatment is multidisciplinary and involves many specialties including surgery, radiology, pathology, radiation oncology, and medical oncology. Coordinating care among disciplines is a very complex process, Voest noted.
“Changing treatment also means that you need to reconsider capacities and requirements,” he said. “Hospitals have installed crisis teams that were very good at coordinating these efforts.”
Restructuring care
Cancer care had to be reorganized on multiple levels, and the CCE centers looked at several aspects that needed to be accounted for, to ensure continuity in cancer care.
“The biggest challenge for the NHS and other healthcare systems is the surge of patients requiring oxygen and/or intensive care, and the nature and infectiousness of the virus,” said coauthor Carlos Caldas, MD, FMedSci, professor of cancer medicine at the University of Cambridge, United Kingdom. “In hospitals that are mostly run close to capacity, and where all kinds of patients are treated, this has created major resource and logistical problems.”
For regular clinical activities, the institutions with dedicated cancer centers (German Cancer Research Center, Institute Gustave Roussy, Istituto Nazionale dei Tumori di Milano, and Netherlands Cancer Institute) have attempted to stay COVID-19 free. This policy would in turn help ensure that sufficient clinical and intensive-care capacity could be reserved for critical cancer surgeries or management of treatment-related side effects, and allow hospitals outside of the CCE to transfer patients with cancer to these centers. The general hospitals can then focus on caring for patients with COVID-19, as well as other illnesses/injuries that require inpatient care.
As the CCE centers located within general hospitals (Cambridge Cancer Center, Vall d’Hebron Institute of Oncology and Karolinska Institute) have to admit patients with suspected and positive cases of COVID-19, being “COVID-19 free” was never a realistic or pursued goal.
The authors note that it is the responsibility of all healthcare professionals to ensure patients are not exposed to COVID-19, and this has meant minimizing hospital visits and person-to-person contact. For example, whenever possible, consultations take place via telephone calls or over the Internet, and nonurgent appointments that would require a patient’s physical presence at the clinic have been postponed. Visitors are also not permitted to accompany patients when admitted to the hospital or during procedures.
Standard-of-care treatment regimens have been adapted across all centers to minimize the number of hospital visits and hospitalizations and prevent “anticancer treatment-induced” complications of COVID-19.
To minimize visits and hospitalizations, strategies include converting intravenous treatments to oral or subcutaneous regimens when possible; switching from cytotoxic chemotherapy to a less-toxic approach to minimize the risk of complications requiring hospitalization; or to pause therapies when possible (stable disease reached or better). In addition, nonemergency surgeries have been postponed or replaced by radiotherapy.
To prevent anticancer treatment-induced complications of COVID-19, most centers use the paradigm that the added benefit for tumor control should be weighed against the potential risk for COVID-19–related morbidity and mortality. To prevent or reduce the risk of neutropenia and lymphopenia, for example, all centers have suggested a de-escalation of cytotoxic chemotherapy or targeted treatment strategies, or to forgo second or subsequent lines of palliative treatments if response rates from up-front therapy are low.
Some of these changes may be here to stay, noted Caldas. “One of the positive messages that comes out of this is that, clearly, care can be delivered in a safe and compassionate manner without requiring as many hospital visits as in the pre-COVID-19 era,” he said. “In the future, we will take heed of the COVID-19 experience to improve delivery of cancer care.”
Capacity of facilities
Many healthcare systems have become overwhelmed as the pandemic has intensified, thus making it necessary to prioritize. To prepare for this possibility, CCE centers have established protocols to categorize and prioritize patients for systemic treatment or surgery. While the protocols vary by center, they are comparable with one another as they prioritize on the basis of anticipated treatment outcome, the authors note.
The guidelines in CCE centers unanimously recommend that neoadjuvant therapies and curative surgeries be the top priority, for the times when operating room and/or ICU capacity is limited. As an alternative, neoadjuvant systemic treatments may be initiated or extended to postpone surgery, and other nonsurgical interventions can be considered.
In addition, some centers agree that certain elective surgeries can be safely delayed if backed by scientific evidence. As an example, an 11-week deferment of surgery may be acceptable for patients with rectal cancer after downstaging.
Cancer centers may also need to upscale and downscale quickly, depending on how the pandemic evolves, and many have already outlined scenarios to prepare for increasing or decreasing their capacity using phased approaches.
The Netherlands Cancer Institute, for example, has defined four phases of increasing severity; in Germany, capacity planning has been coordinated among 18 hospitals and the federal ministry of health, in order to prevent shortages of cancer services.
“We note that the optimal downscaling strategies depend on country- and center-specific capacities and preferences,” they write. “Therefore, it is difficult to propose a common schedule, and it will be most effective if hospitals outline their own phase-specific downscaling strategies based on the prioritization schemes and practical handles discussed above.”
Future research
Better strategies will be needed to reduce the impact of COVID-19 in cancer care, and four research priorities were identified to allow for evidence-based adjustments of cancer care protocols while the pandemic continues:
- Collect real-world data about the effects of adjustment and de-escalation of treatment regimens on outcomes
- Determine the incidence of COVID-19 in both the general population and among patients with cancer who have received systemic therapies, with large-scale serological testing
- Develop an epidemiological model that will allow estimates of the cumulative incidence of COVID-19 for a patient with cancer, within a specific time frame
- Determine COVID-19 related morbidity and mortality in patients with cancer who have been treated with systemic therapies and/or granulocyte colony-stimulating factor (G-CSF). Several projects are currently underway, such as the UK Coronavirus Cancer Monitoring Project.
The authors have disclosed no relevant financial relationships.
This article first appeared on Medscape.com.
ACEI/ARBs linked with survival in hypertensive, Chinese COVID-19 patients
Hospitalized COVID-19 patients with hypertension and on treatment with an renin-angiotensin system inhibiting drug had significantly better survival, compared with similar hypertensive patients not on these drugs, in observational, propensity score–matched analyses that drew from a pool of more than 3,430 patients hospitalized at any of nine Chinese hospitals during December 2019–February 2020.
“Among patients with hypertension hospitalized with COVID-19, inpatient treatment with ACEI [ACE inhibitor]/ARB [angiotensin receptor blocker] was associated with lower risk of all-cause mortality, compared with ACEI/ARB nonusers, during 28 days of follow-up. While study interpretation needs to consider the potential for residual confounders, it is unlikely that inpatient ACEI/ARB would be associated with an increased risk of mortality,” wrote Peng Zhang, MD, a cardiology researcher at Renmin Hospital of Wuhan University, China, and coauthors in Circulations Research, buttressing recent recommendations from several medical societies to maintain COVID-19 patients on these drugs.
“Our findings in this paper provide evidence supporting continuous use of ACEI/ARB for patients with hypertension infected with SARS-COV-2,” wrote the authors, backing up recent recommendations from cardiology societies that called for not stopping ACEI/ARB prescriptions in patients at risk for contracting or already have COVID-19 infection, including a statement from the American College of Cardiology, American Heart Association, and Heart Failure Society of America, and also guidance from the European Society of Cardiology.
The study included 1,128 patients with a history of hypertension, including 188 (17%) who received an ACEI/ARB drug during hospitalization. During 28-day follow-up, 99 died (9%), including 7 deaths among the 188 patients (4%) on an ACEI/ARB drug and 92 deaths among the 940 other hypertensive patients (10%).
The authors ran several analyses to try to adjust for the influence of possible confounders. A mixed-effect Cox model with four adjusted variables showed that treatment with an ACEI/ARB drug was tied to a statistically significant 58% lower death rate, compared with patients not receiving these drugs.
The researchers also ran several propensity score–adjusted analyses. One matched 174 of the patients who received an ACEI/ARB drug with 522 who did not, and comparing these two matched arms showed that ACEI/ARB use was linked with a statistically significant 63% cut in mortality, compared with patients not getting these drugs. A second propensity score–matched analysis first excluded the 383 patients who were hypertensive but received no antihypertensive medication during hospitalization. From the remaining 745 patients who received at least one antihypertensive medication, the authors identified 181 patients who received an ACEI/ARB and propensity-score matched them with 181 hypertensive patients on a different medication class, finding that ACEI/ARB use linked with a statistically significant 71% lower rate of all-cause mortality.
Additional analyses also showed that patients with hypertension had a statistically significant, 41% increased rate of all-cause death, compared with patients without hypertension, and another propensity score–matched analysis showed that among hypertensives treatment with an ACEI/ARB drug was linked with a statistically significant 68% reduced rate of septic shock.
Although this report was received with caution and some skepticism, it was also acknowledged as a step forward in the creation of an evidence base addressing ACEI/ARB treatment during COVID-19 infection.
“These drugs are lifesaving and should not be discontinued” for patients with hypertension, heart failure, and other cardiovascular disease, commented Gian Paolo Rossi, MD, professor and chair of medicine and director of the high blood pressure unit at the University of Padua (Italy). The analysis by Zhang and associates included the largest number of hospitalized COVID-19 patients with hypertension yet reported to assess the impact of treatment with ACEI/ARB drugs, and adds important evidence in favor of continuing these drugs in patients who develop COVID-19 infection, Dr. Rossi said in an interview. He recently coauthored a review that argued against ACEI/ARB discontinuation in COVID-19 patients based on previously reported evidence (Elife. 2020 Apr 6. doi: 10.7554/eLife.57278).
But other researchers take a wary view of the potential impact of ACEI/ARB agents. “If ACEI/ARB therapy increases ACE2 and the virus down-regulates it, and because ACE2 is the viral entry port into cells, why would ACE2-mediated down-regulation of the renin-angiotensin-aldosterone system lead to amelioration of [COVID-19] disease?” asked Laurence W. Busse, MD, a critical care physician at Emory University, Atlanta. “A number of issues could potentially confound the results, including the definition of COVID-19 and imbalance of antiviral therapy,” added Dr. Busse, who recently coauthored an editorial that posited using angiotensin II (Giapreza), an approved vasopressor drug, as an alternative renin-angiotensin system intervention for COVID-19 patients including both those in shock as well as potentially those not in shock (Crit Care. 2020 Apr 7. doi: 10.1186/s13054-020-02862-1). Despite these caveats, the new Chinese findings reported by Dr. Zhang and associates “are hypothesis generating and worth further exploration.”
The authors of an editorial that accompanied the Zhang study in Circulation Research made similar points. “While the investigators used standard techniques to attempt to reduce bias in this observational study via propensity matching, it is not a randomized study and the residual confounding inherent to this approach renders the conclusions hypothesis generating at best,” wrote Ravi V. Shah, MD, and two coauthors in the editorial (Circ Res. 2020 Apr 17. doi: 10.1161/CIRCRESAHA.120.317174). They also agreed with the several society statements that have supported continued use of ACEI/ARB drugs in COVID-19 patients. “Withdrawal of these medications in the context of those conditions in which they have proven benefit (e.g., heart failure with reduced left ventricular ejection fraction) may actually inflict more harm than good,” they warned. “In the end we must rely on randomized clinical science,” and while this level of evidence is currently lacking, “the study by Zhang and colleagues is a direct step toward that goal.”
Dr. Zhang and coauthors had no commercial disclosures. Dr. Rossi and Dr. Busse had no disclosures. The authors of the Circulation Research editorial reported several disclosures.
SOURCE: Zhang P et al. Circ Res. 2020 Apr 17. doi: 10.1161/CIRCRESAHA.120.317134.
Hospitalized COVID-19 patients with hypertension and on treatment with an renin-angiotensin system inhibiting drug had significantly better survival, compared with similar hypertensive patients not on these drugs, in observational, propensity score–matched analyses that drew from a pool of more than 3,430 patients hospitalized at any of nine Chinese hospitals during December 2019–February 2020.
“Among patients with hypertension hospitalized with COVID-19, inpatient treatment with ACEI [ACE inhibitor]/ARB [angiotensin receptor blocker] was associated with lower risk of all-cause mortality, compared with ACEI/ARB nonusers, during 28 days of follow-up. While study interpretation needs to consider the potential for residual confounders, it is unlikely that inpatient ACEI/ARB would be associated with an increased risk of mortality,” wrote Peng Zhang, MD, a cardiology researcher at Renmin Hospital of Wuhan University, China, and coauthors in Circulations Research, buttressing recent recommendations from several medical societies to maintain COVID-19 patients on these drugs.
“Our findings in this paper provide evidence supporting continuous use of ACEI/ARB for patients with hypertension infected with SARS-COV-2,” wrote the authors, backing up recent recommendations from cardiology societies that called for not stopping ACEI/ARB prescriptions in patients at risk for contracting or already have COVID-19 infection, including a statement from the American College of Cardiology, American Heart Association, and Heart Failure Society of America, and also guidance from the European Society of Cardiology.
The study included 1,128 patients with a history of hypertension, including 188 (17%) who received an ACEI/ARB drug during hospitalization. During 28-day follow-up, 99 died (9%), including 7 deaths among the 188 patients (4%) on an ACEI/ARB drug and 92 deaths among the 940 other hypertensive patients (10%).
The authors ran several analyses to try to adjust for the influence of possible confounders. A mixed-effect Cox model with four adjusted variables showed that treatment with an ACEI/ARB drug was tied to a statistically significant 58% lower death rate, compared with patients not receiving these drugs.
The researchers also ran several propensity score–adjusted analyses. One matched 174 of the patients who received an ACEI/ARB drug with 522 who did not, and comparing these two matched arms showed that ACEI/ARB use was linked with a statistically significant 63% cut in mortality, compared with patients not getting these drugs. A second propensity score–matched analysis first excluded the 383 patients who were hypertensive but received no antihypertensive medication during hospitalization. From the remaining 745 patients who received at least one antihypertensive medication, the authors identified 181 patients who received an ACEI/ARB and propensity-score matched them with 181 hypertensive patients on a different medication class, finding that ACEI/ARB use linked with a statistically significant 71% lower rate of all-cause mortality.
Additional analyses also showed that patients with hypertension had a statistically significant, 41% increased rate of all-cause death, compared with patients without hypertension, and another propensity score–matched analysis showed that among hypertensives treatment with an ACEI/ARB drug was linked with a statistically significant 68% reduced rate of septic shock.
Although this report was received with caution and some skepticism, it was also acknowledged as a step forward in the creation of an evidence base addressing ACEI/ARB treatment during COVID-19 infection.
“These drugs are lifesaving and should not be discontinued” for patients with hypertension, heart failure, and other cardiovascular disease, commented Gian Paolo Rossi, MD, professor and chair of medicine and director of the high blood pressure unit at the University of Padua (Italy). The analysis by Zhang and associates included the largest number of hospitalized COVID-19 patients with hypertension yet reported to assess the impact of treatment with ACEI/ARB drugs, and adds important evidence in favor of continuing these drugs in patients who develop COVID-19 infection, Dr. Rossi said in an interview. He recently coauthored a review that argued against ACEI/ARB discontinuation in COVID-19 patients based on previously reported evidence (Elife. 2020 Apr 6. doi: 10.7554/eLife.57278).
But other researchers take a wary view of the potential impact of ACEI/ARB agents. “If ACEI/ARB therapy increases ACE2 and the virus down-regulates it, and because ACE2 is the viral entry port into cells, why would ACE2-mediated down-regulation of the renin-angiotensin-aldosterone system lead to amelioration of [COVID-19] disease?” asked Laurence W. Busse, MD, a critical care physician at Emory University, Atlanta. “A number of issues could potentially confound the results, including the definition of COVID-19 and imbalance of antiviral therapy,” added Dr. Busse, who recently coauthored an editorial that posited using angiotensin II (Giapreza), an approved vasopressor drug, as an alternative renin-angiotensin system intervention for COVID-19 patients including both those in shock as well as potentially those not in shock (Crit Care. 2020 Apr 7. doi: 10.1186/s13054-020-02862-1). Despite these caveats, the new Chinese findings reported by Dr. Zhang and associates “are hypothesis generating and worth further exploration.”
The authors of an editorial that accompanied the Zhang study in Circulation Research made similar points. “While the investigators used standard techniques to attempt to reduce bias in this observational study via propensity matching, it is not a randomized study and the residual confounding inherent to this approach renders the conclusions hypothesis generating at best,” wrote Ravi V. Shah, MD, and two coauthors in the editorial (Circ Res. 2020 Apr 17. doi: 10.1161/CIRCRESAHA.120.317174). They also agreed with the several society statements that have supported continued use of ACEI/ARB drugs in COVID-19 patients. “Withdrawal of these medications in the context of those conditions in which they have proven benefit (e.g., heart failure with reduced left ventricular ejection fraction) may actually inflict more harm than good,” they warned. “In the end we must rely on randomized clinical science,” and while this level of evidence is currently lacking, “the study by Zhang and colleagues is a direct step toward that goal.”
Dr. Zhang and coauthors had no commercial disclosures. Dr. Rossi and Dr. Busse had no disclosures. The authors of the Circulation Research editorial reported several disclosures.
SOURCE: Zhang P et al. Circ Res. 2020 Apr 17. doi: 10.1161/CIRCRESAHA.120.317134.
Hospitalized COVID-19 patients with hypertension and on treatment with an renin-angiotensin system inhibiting drug had significantly better survival, compared with similar hypertensive patients not on these drugs, in observational, propensity score–matched analyses that drew from a pool of more than 3,430 patients hospitalized at any of nine Chinese hospitals during December 2019–February 2020.
“Among patients with hypertension hospitalized with COVID-19, inpatient treatment with ACEI [ACE inhibitor]/ARB [angiotensin receptor blocker] was associated with lower risk of all-cause mortality, compared with ACEI/ARB nonusers, during 28 days of follow-up. While study interpretation needs to consider the potential for residual confounders, it is unlikely that inpatient ACEI/ARB would be associated with an increased risk of mortality,” wrote Peng Zhang, MD, a cardiology researcher at Renmin Hospital of Wuhan University, China, and coauthors in Circulations Research, buttressing recent recommendations from several medical societies to maintain COVID-19 patients on these drugs.
“Our findings in this paper provide evidence supporting continuous use of ACEI/ARB for patients with hypertension infected with SARS-COV-2,” wrote the authors, backing up recent recommendations from cardiology societies that called for not stopping ACEI/ARB prescriptions in patients at risk for contracting or already have COVID-19 infection, including a statement from the American College of Cardiology, American Heart Association, and Heart Failure Society of America, and also guidance from the European Society of Cardiology.
The study included 1,128 patients with a history of hypertension, including 188 (17%) who received an ACEI/ARB drug during hospitalization. During 28-day follow-up, 99 died (9%), including 7 deaths among the 188 patients (4%) on an ACEI/ARB drug and 92 deaths among the 940 other hypertensive patients (10%).
The authors ran several analyses to try to adjust for the influence of possible confounders. A mixed-effect Cox model with four adjusted variables showed that treatment with an ACEI/ARB drug was tied to a statistically significant 58% lower death rate, compared with patients not receiving these drugs.
The researchers also ran several propensity score–adjusted analyses. One matched 174 of the patients who received an ACEI/ARB drug with 522 who did not, and comparing these two matched arms showed that ACEI/ARB use was linked with a statistically significant 63% cut in mortality, compared with patients not getting these drugs. A second propensity score–matched analysis first excluded the 383 patients who were hypertensive but received no antihypertensive medication during hospitalization. From the remaining 745 patients who received at least one antihypertensive medication, the authors identified 181 patients who received an ACEI/ARB and propensity-score matched them with 181 hypertensive patients on a different medication class, finding that ACEI/ARB use linked with a statistically significant 71% lower rate of all-cause mortality.
Additional analyses also showed that patients with hypertension had a statistically significant, 41% increased rate of all-cause death, compared with patients without hypertension, and another propensity score–matched analysis showed that among hypertensives treatment with an ACEI/ARB drug was linked with a statistically significant 68% reduced rate of septic shock.
Although this report was received with caution and some skepticism, it was also acknowledged as a step forward in the creation of an evidence base addressing ACEI/ARB treatment during COVID-19 infection.
“These drugs are lifesaving and should not be discontinued” for patients with hypertension, heart failure, and other cardiovascular disease, commented Gian Paolo Rossi, MD, professor and chair of medicine and director of the high blood pressure unit at the University of Padua (Italy). The analysis by Zhang and associates included the largest number of hospitalized COVID-19 patients with hypertension yet reported to assess the impact of treatment with ACEI/ARB drugs, and adds important evidence in favor of continuing these drugs in patients who develop COVID-19 infection, Dr. Rossi said in an interview. He recently coauthored a review that argued against ACEI/ARB discontinuation in COVID-19 patients based on previously reported evidence (Elife. 2020 Apr 6. doi: 10.7554/eLife.57278).
But other researchers take a wary view of the potential impact of ACEI/ARB agents. “If ACEI/ARB therapy increases ACE2 and the virus down-regulates it, and because ACE2 is the viral entry port into cells, why would ACE2-mediated down-regulation of the renin-angiotensin-aldosterone system lead to amelioration of [COVID-19] disease?” asked Laurence W. Busse, MD, a critical care physician at Emory University, Atlanta. “A number of issues could potentially confound the results, including the definition of COVID-19 and imbalance of antiviral therapy,” added Dr. Busse, who recently coauthored an editorial that posited using angiotensin II (Giapreza), an approved vasopressor drug, as an alternative renin-angiotensin system intervention for COVID-19 patients including both those in shock as well as potentially those not in shock (Crit Care. 2020 Apr 7. doi: 10.1186/s13054-020-02862-1). Despite these caveats, the new Chinese findings reported by Dr. Zhang and associates “are hypothesis generating and worth further exploration.”
The authors of an editorial that accompanied the Zhang study in Circulation Research made similar points. “While the investigators used standard techniques to attempt to reduce bias in this observational study via propensity matching, it is not a randomized study and the residual confounding inherent to this approach renders the conclusions hypothesis generating at best,” wrote Ravi V. Shah, MD, and two coauthors in the editorial (Circ Res. 2020 Apr 17. doi: 10.1161/CIRCRESAHA.120.317174). They also agreed with the several society statements that have supported continued use of ACEI/ARB drugs in COVID-19 patients. “Withdrawal of these medications in the context of those conditions in which they have proven benefit (e.g., heart failure with reduced left ventricular ejection fraction) may actually inflict more harm than good,” they warned. “In the end we must rely on randomized clinical science,” and while this level of evidence is currently lacking, “the study by Zhang and colleagues is a direct step toward that goal.”
Dr. Zhang and coauthors had no commercial disclosures. Dr. Rossi and Dr. Busse had no disclosures. The authors of the Circulation Research editorial reported several disclosures.
SOURCE: Zhang P et al. Circ Res. 2020 Apr 17. doi: 10.1161/CIRCRESAHA.120.317134.
FROM CIRCULATION RESEARCH
Prioritize lung cancer patients for COVID-19 testing, physicians recommend
Lung cancer patients should be prioritized for COVID-19 testing, according to an editorial published in Annals of Oncology.
In fact, treatment recommendations should call for baseline COVID-19 testing for all patients with lung cancer, Antonio Passaro, MD, PhD, of the European Institute of Oncology in Milan, Italy, and colleagues argued in the editorial.
“While all types of malignancies seem to be associated with high COVID-19 prevalence, morbidity, and mortality, lung cancer represents a specific scenario of cumulative risk factors for COVID-19 complications,” the authors wrote.
“[Lung cancer patients] are at a uniquely escalated risk of complications from COVID-19 due to the common features of smoking history, respiratory and cardiac disease, advanced age, and often predisposing risks from treatment, such as lung surgery and immunosuppressive chemotherapy,” said Howard (Jack) West, MD, of City of Hope Comprehensive Cancer Center in Duarte, Calif., who was not involved in the editorial.
“They also routinely experience a cough as well as chest imaging that may overlap between their underlying lung cancer, possible side effects of treatment, and potential COVID-19, leading to troubling ambiguity that can only be addressed by proactive and widespread testing of patients with lung cancer at the earliest opportunity and as a very high priority,” Dr. West added.
Dr. Passaro and colleagues’ editorial outlined these and other issues that suggest a need to prioritize testing in lung cancer patients.
Disease characteristics, treatment, and imaging
Lung cancer patients may have “defective pulmonary architecture,” such as mechanical obstruction from a tumor or previous lung surgery, that predisposes them to infection and can increase the risk of cytokine release. This is a concern because massive cytokine release during SARS-CoV-2 infection “has been postulated to be the major step in leading to the development of ARDS [acute respiratory distress syndrome],” Dr. Passaro and colleagues wrote.
The authors also argued that similar clinical symptoms among lung cancer patients and those with COVID-19 – such as cough, fever, and dyspnea – underscore the need for an accurate screening model to allow for early COVID-19 detection and potentially improve outcomes.
Similarly, lung cancer patients and COVID-19 patients may have overlapping findings on imaging. The radiologic effects of some common treatments for lung cancer can lead to the same kind of ground glass opacities and other findings seen in COVID-19 patients. Therefore, the authors predict an increase in “COVID-19-suspicious imaging, even in the absence of new symptoms” in the coming weeks.
Another issue to consider is the frequent use of corticosteroids in cancer patients. Corticosteroids may be harmful when used for COVID-19–related acute respiratory distress syndrome and could mask early symptoms of infection. Therefore, routine COVID-19 testing in patients receiving steroids may be warranted, according to Dr. Passaro and colleagues.
In addition, immunosuppression associated with cancer treatment “may impose specific consideration on the schedule and dose of cytotoxic chemotherapy for lung cancer patients in epidemic areas,” the authors wrote.
Increasing awareness: A registry and guidelines
“In the era of COVID-19, the optimal management of patients with lung cancer remains unknown, and the oncology community should have increased awareness to prevent the emergence of an increase in cancer-related and infectious mortality,” Dr. Passaro and colleagues wrote.
To that end, a novel global registry (TERAVOLT) has been launched and is collecting data worldwide with an aim of developing a tailored risk assessment strategy for lung cancer patients. The authors noted that developing international consensus with respect to COVID-19 testing in lung cancer is essential for achieving that goal.
The European Society for Medical Oncology recently released guidelines for treating lung cancer patients during the COVID-19 pandemic, but those guidelines do not include recommendations on COVID-19 testing.
“Baseline SARS-CoV-2 testing for all patients affected by lung cancer should be recommended,” Dr. Passaro and colleagues wrote. “In addition, for those patients with a negative swab test and new ground glass opacities detected on CT scan, with or without new respiratory symptoms, bronchoscopy should be considered to increase testing sensitivity.”
This work was partially supported by the Italian Ministry of Health. The authors reported having no relevant conflicts of interest. Dr. West is a regular correspondent for Medscape, which is owned by the same parent company as MDedge.
SOURCE: Passaro A et al. Annals of Oncology. doi: 10.1016/j.annonc.2020.04.002.
Lung cancer patients should be prioritized for COVID-19 testing, according to an editorial published in Annals of Oncology.
In fact, treatment recommendations should call for baseline COVID-19 testing for all patients with lung cancer, Antonio Passaro, MD, PhD, of the European Institute of Oncology in Milan, Italy, and colleagues argued in the editorial.
“While all types of malignancies seem to be associated with high COVID-19 prevalence, morbidity, and mortality, lung cancer represents a specific scenario of cumulative risk factors for COVID-19 complications,” the authors wrote.
“[Lung cancer patients] are at a uniquely escalated risk of complications from COVID-19 due to the common features of smoking history, respiratory and cardiac disease, advanced age, and often predisposing risks from treatment, such as lung surgery and immunosuppressive chemotherapy,” said Howard (Jack) West, MD, of City of Hope Comprehensive Cancer Center in Duarte, Calif., who was not involved in the editorial.
“They also routinely experience a cough as well as chest imaging that may overlap between their underlying lung cancer, possible side effects of treatment, and potential COVID-19, leading to troubling ambiguity that can only be addressed by proactive and widespread testing of patients with lung cancer at the earliest opportunity and as a very high priority,” Dr. West added.
Dr. Passaro and colleagues’ editorial outlined these and other issues that suggest a need to prioritize testing in lung cancer patients.
Disease characteristics, treatment, and imaging
Lung cancer patients may have “defective pulmonary architecture,” such as mechanical obstruction from a tumor or previous lung surgery, that predisposes them to infection and can increase the risk of cytokine release. This is a concern because massive cytokine release during SARS-CoV-2 infection “has been postulated to be the major step in leading to the development of ARDS [acute respiratory distress syndrome],” Dr. Passaro and colleagues wrote.
The authors also argued that similar clinical symptoms among lung cancer patients and those with COVID-19 – such as cough, fever, and dyspnea – underscore the need for an accurate screening model to allow for early COVID-19 detection and potentially improve outcomes.
Similarly, lung cancer patients and COVID-19 patients may have overlapping findings on imaging. The radiologic effects of some common treatments for lung cancer can lead to the same kind of ground glass opacities and other findings seen in COVID-19 patients. Therefore, the authors predict an increase in “COVID-19-suspicious imaging, even in the absence of new symptoms” in the coming weeks.
Another issue to consider is the frequent use of corticosteroids in cancer patients. Corticosteroids may be harmful when used for COVID-19–related acute respiratory distress syndrome and could mask early symptoms of infection. Therefore, routine COVID-19 testing in patients receiving steroids may be warranted, according to Dr. Passaro and colleagues.
In addition, immunosuppression associated with cancer treatment “may impose specific consideration on the schedule and dose of cytotoxic chemotherapy for lung cancer patients in epidemic areas,” the authors wrote.
Increasing awareness: A registry and guidelines
“In the era of COVID-19, the optimal management of patients with lung cancer remains unknown, and the oncology community should have increased awareness to prevent the emergence of an increase in cancer-related and infectious mortality,” Dr. Passaro and colleagues wrote.
To that end, a novel global registry (TERAVOLT) has been launched and is collecting data worldwide with an aim of developing a tailored risk assessment strategy for lung cancer patients. The authors noted that developing international consensus with respect to COVID-19 testing in lung cancer is essential for achieving that goal.
The European Society for Medical Oncology recently released guidelines for treating lung cancer patients during the COVID-19 pandemic, but those guidelines do not include recommendations on COVID-19 testing.
“Baseline SARS-CoV-2 testing for all patients affected by lung cancer should be recommended,” Dr. Passaro and colleagues wrote. “In addition, for those patients with a negative swab test and new ground glass opacities detected on CT scan, with or without new respiratory symptoms, bronchoscopy should be considered to increase testing sensitivity.”
This work was partially supported by the Italian Ministry of Health. The authors reported having no relevant conflicts of interest. Dr. West is a regular correspondent for Medscape, which is owned by the same parent company as MDedge.
SOURCE: Passaro A et al. Annals of Oncology. doi: 10.1016/j.annonc.2020.04.002.
Lung cancer patients should be prioritized for COVID-19 testing, according to an editorial published in Annals of Oncology.
In fact, treatment recommendations should call for baseline COVID-19 testing for all patients with lung cancer, Antonio Passaro, MD, PhD, of the European Institute of Oncology in Milan, Italy, and colleagues argued in the editorial.
“While all types of malignancies seem to be associated with high COVID-19 prevalence, morbidity, and mortality, lung cancer represents a specific scenario of cumulative risk factors for COVID-19 complications,” the authors wrote.
“[Lung cancer patients] are at a uniquely escalated risk of complications from COVID-19 due to the common features of smoking history, respiratory and cardiac disease, advanced age, and often predisposing risks from treatment, such as lung surgery and immunosuppressive chemotherapy,” said Howard (Jack) West, MD, of City of Hope Comprehensive Cancer Center in Duarte, Calif., who was not involved in the editorial.
“They also routinely experience a cough as well as chest imaging that may overlap between their underlying lung cancer, possible side effects of treatment, and potential COVID-19, leading to troubling ambiguity that can only be addressed by proactive and widespread testing of patients with lung cancer at the earliest opportunity and as a very high priority,” Dr. West added.
Dr. Passaro and colleagues’ editorial outlined these and other issues that suggest a need to prioritize testing in lung cancer patients.
Disease characteristics, treatment, and imaging
Lung cancer patients may have “defective pulmonary architecture,” such as mechanical obstruction from a tumor or previous lung surgery, that predisposes them to infection and can increase the risk of cytokine release. This is a concern because massive cytokine release during SARS-CoV-2 infection “has been postulated to be the major step in leading to the development of ARDS [acute respiratory distress syndrome],” Dr. Passaro and colleagues wrote.
The authors also argued that similar clinical symptoms among lung cancer patients and those with COVID-19 – such as cough, fever, and dyspnea – underscore the need for an accurate screening model to allow for early COVID-19 detection and potentially improve outcomes.
Similarly, lung cancer patients and COVID-19 patients may have overlapping findings on imaging. The radiologic effects of some common treatments for lung cancer can lead to the same kind of ground glass opacities and other findings seen in COVID-19 patients. Therefore, the authors predict an increase in “COVID-19-suspicious imaging, even in the absence of new symptoms” in the coming weeks.
Another issue to consider is the frequent use of corticosteroids in cancer patients. Corticosteroids may be harmful when used for COVID-19–related acute respiratory distress syndrome and could mask early symptoms of infection. Therefore, routine COVID-19 testing in patients receiving steroids may be warranted, according to Dr. Passaro and colleagues.
In addition, immunosuppression associated with cancer treatment “may impose specific consideration on the schedule and dose of cytotoxic chemotherapy for lung cancer patients in epidemic areas,” the authors wrote.
Increasing awareness: A registry and guidelines
“In the era of COVID-19, the optimal management of patients with lung cancer remains unknown, and the oncology community should have increased awareness to prevent the emergence of an increase in cancer-related and infectious mortality,” Dr. Passaro and colleagues wrote.
To that end, a novel global registry (TERAVOLT) has been launched and is collecting data worldwide with an aim of developing a tailored risk assessment strategy for lung cancer patients. The authors noted that developing international consensus with respect to COVID-19 testing in lung cancer is essential for achieving that goal.
The European Society for Medical Oncology recently released guidelines for treating lung cancer patients during the COVID-19 pandemic, but those guidelines do not include recommendations on COVID-19 testing.
“Baseline SARS-CoV-2 testing for all patients affected by lung cancer should be recommended,” Dr. Passaro and colleagues wrote. “In addition, for those patients with a negative swab test and new ground glass opacities detected on CT scan, with or without new respiratory symptoms, bronchoscopy should be considered to increase testing sensitivity.”
This work was partially supported by the Italian Ministry of Health. The authors reported having no relevant conflicts of interest. Dr. West is a regular correspondent for Medscape, which is owned by the same parent company as MDedge.
SOURCE: Passaro A et al. Annals of Oncology. doi: 10.1016/j.annonc.2020.04.002.
FROM ANNALS OF ONCOLOGY
Coping with COVID-19: Things may never be the same
The last few weeks have been confusing and a little overwhelming. A hodgepodge of rapid-fire publications of potential treatments and multiple, sometimes confusing government mandates and initiatives have inundated us. The overriding theme is clear, though: Let’s first concentrate on keeping our civilization intact. State governments have been largely focused on “flattening the curve” of new infections. And the longer we slow this disease down, the better we learn how to treat it.
Multiple existing medications, repurposed from all walks of the pharmacologic world, have been screened and shown to have potential therapeutic benefit, and they are being tested even as I write this column. The nasty form of this disease is a unique form of adult respiratory distress syndrome, and the terminal event appears to be a form of disseminated intravascular coagulation, which may respond to unexpected therapies, such as clot busters (J Thromb Haemost. 2020 Apr 8. doi: 10.1111/jth.14828).
Now, let’s consider the more mundane issue of keeping your medical practice alive.
Some state medical boards have relaxed the rules on licensing, and the federal government on HIPAA compliance, so that telemedicine has finally become practical. Some EHR vendors have even rushed out modules to make it easier to conduct visits with patients through their patient portals. This has all made it almost practical to see, monitor, and treat existing patients with chronic conditions, and even new ones who do not require a biopsy.
But it has also become clear that telemedicine is not a long-term means of keeping your practice viable, at least not in your practice’s current form. It can be difficult to enroll new patients and the process of collecting copays and deductibles can be frustrating and slow. There may also resistance from our patients, who may be used to having this sort of service performed by us free-of-charge. Those selfies that in the past you may have viewed, called the patient to discuss, and then called their medication into the pharmacy – all as a convenience – are coming back to haunt you. It was free before, they say, what has changed?
Another obstacle, as always, is reimbursement. There is an inconsistent patchwork of private insurance coverage that may or may not pay you. The American Academy of Dermatology has put together an excellent resource on its web site on all matters regarding COVID-19 to help you.
But the underlying undeniable reality is that you cannot support your current practice model long term with telemedicine because only about 30% of dermatology reimbursement comes from evaluation and management codes, according to a recently published study – and the rest, procedures, obviously requires patient contact (JAMA Surg. 2020 Apr 15. doi: 10.1001/jamasurg.2020.0422).
The federal government has been economically responsive by injecting money into businesses with less than 500 employees. Most of you will be eligible and probably already have applied for the Paycheck Protection Program. These are small business “loans” that your bank puts the paperwork in for, which can total up to 2.5 times one month’s average payroll. These “loans” may be 100% forgivable (75% must come from two months payroll, another 25% rent and expenses) if you do not lay anyone off.
Employees can be kept busy doing other tasks besides directly helping with patients. Like many of you with state-mandated lockdowns, my office has never been so clean, the cabinets so well stocked, and the files so organized. The stock room has been cleaned out, and any extra personal protective gear has been donated to the hospital and emergency medical services. We have landscaped the front of our building and if it warms up, we will seal and remark the parking lot. You get my drift. I have also applied for and received an advance of three months of Medicare payments, which will be automatically paid back as practice resumes. This is in effect an interest-free loan. A few days ago, my business checking account received a deposit from the Department of Health & Human Services for 6.1% of last year’s Medicare billings. This is unexpected, no obligation support to help keep your medical office open in the time of COVID-19. It appears that the office and practice will be able to weather the fire.
Assuming our practices survive more or less intact, there are major social consequences to consider. Society is a conglomeration of individuals, and individuals act on their Maslow’s hierarchy of needs (a concept introduced by psychologist Abraham Maslow, PhD, over 75 years ago). Our society has already slid down several of Maslow’s levels. We have reset to about level two, which is safety, one level above physiologic needs. Recall the grocery store fights. Look at the gun sales. The toilet paper roll has been reset from wheel of fortune spin to safe cracking mode.
This reset of the societal mindset has many ramifications you may not normally consider. For example, who will risk buying up to that dream home or purchasing a second home, if you are being told to shelter in place? Fewer may gamble $300,000 on a college education at a less-than-top-50 school. Who even knows when college will start next year. Who is going to take that promotion to New York City, or even New Jersey, and ride the train and subway to work every day? Who wants to commute through the crowded airport on the jam packed “plane train”?
It is easy to predict we will see a severe recession followed by higher taxes and inflation (stagflation). There is a financial writer I like to read who has been predicting a “great reset” of American society for several years. COVID-19 may have precipitated that reset, and things may never be the same.
Dr. Coldiron is in private practice but maintains a clinical assistant professorship at the University of Cincinnati. He cares for patients, teaches medical students and residents, and has several active clinical research projects. Dr. Coldiron is the author of more than 80 scientific letters, papers, and several book chapters, and he speaks frequently on a variety of topics. He is a past president of the American Academy of Dermatology. Write to him at dermnews@mdedge.com. He has no disclosures.
The last few weeks have been confusing and a little overwhelming. A hodgepodge of rapid-fire publications of potential treatments and multiple, sometimes confusing government mandates and initiatives have inundated us. The overriding theme is clear, though: Let’s first concentrate on keeping our civilization intact. State governments have been largely focused on “flattening the curve” of new infections. And the longer we slow this disease down, the better we learn how to treat it.
Multiple existing medications, repurposed from all walks of the pharmacologic world, have been screened and shown to have potential therapeutic benefit, and they are being tested even as I write this column. The nasty form of this disease is a unique form of adult respiratory distress syndrome, and the terminal event appears to be a form of disseminated intravascular coagulation, which may respond to unexpected therapies, such as clot busters (J Thromb Haemost. 2020 Apr 8. doi: 10.1111/jth.14828).
Now, let’s consider the more mundane issue of keeping your medical practice alive.
Some state medical boards have relaxed the rules on licensing, and the federal government on HIPAA compliance, so that telemedicine has finally become practical. Some EHR vendors have even rushed out modules to make it easier to conduct visits with patients through their patient portals. This has all made it almost practical to see, monitor, and treat existing patients with chronic conditions, and even new ones who do not require a biopsy.
But it has also become clear that telemedicine is not a long-term means of keeping your practice viable, at least not in your practice’s current form. It can be difficult to enroll new patients and the process of collecting copays and deductibles can be frustrating and slow. There may also resistance from our patients, who may be used to having this sort of service performed by us free-of-charge. Those selfies that in the past you may have viewed, called the patient to discuss, and then called their medication into the pharmacy – all as a convenience – are coming back to haunt you. It was free before, they say, what has changed?
Another obstacle, as always, is reimbursement. There is an inconsistent patchwork of private insurance coverage that may or may not pay you. The American Academy of Dermatology has put together an excellent resource on its web site on all matters regarding COVID-19 to help you.
But the underlying undeniable reality is that you cannot support your current practice model long term with telemedicine because only about 30% of dermatology reimbursement comes from evaluation and management codes, according to a recently published study – and the rest, procedures, obviously requires patient contact (JAMA Surg. 2020 Apr 15. doi: 10.1001/jamasurg.2020.0422).
The federal government has been economically responsive by injecting money into businesses with less than 500 employees. Most of you will be eligible and probably already have applied for the Paycheck Protection Program. These are small business “loans” that your bank puts the paperwork in for, which can total up to 2.5 times one month’s average payroll. These “loans” may be 100% forgivable (75% must come from two months payroll, another 25% rent and expenses) if you do not lay anyone off.
Employees can be kept busy doing other tasks besides directly helping with patients. Like many of you with state-mandated lockdowns, my office has never been so clean, the cabinets so well stocked, and the files so organized. The stock room has been cleaned out, and any extra personal protective gear has been donated to the hospital and emergency medical services. We have landscaped the front of our building and if it warms up, we will seal and remark the parking lot. You get my drift. I have also applied for and received an advance of three months of Medicare payments, which will be automatically paid back as practice resumes. This is in effect an interest-free loan. A few days ago, my business checking account received a deposit from the Department of Health & Human Services for 6.1% of last year’s Medicare billings. This is unexpected, no obligation support to help keep your medical office open in the time of COVID-19. It appears that the office and practice will be able to weather the fire.
Assuming our practices survive more or less intact, there are major social consequences to consider. Society is a conglomeration of individuals, and individuals act on their Maslow’s hierarchy of needs (a concept introduced by psychologist Abraham Maslow, PhD, over 75 years ago). Our society has already slid down several of Maslow’s levels. We have reset to about level two, which is safety, one level above physiologic needs. Recall the grocery store fights. Look at the gun sales. The toilet paper roll has been reset from wheel of fortune spin to safe cracking mode.
This reset of the societal mindset has many ramifications you may not normally consider. For example, who will risk buying up to that dream home or purchasing a second home, if you are being told to shelter in place? Fewer may gamble $300,000 on a college education at a less-than-top-50 school. Who even knows when college will start next year. Who is going to take that promotion to New York City, or even New Jersey, and ride the train and subway to work every day? Who wants to commute through the crowded airport on the jam packed “plane train”?
It is easy to predict we will see a severe recession followed by higher taxes and inflation (stagflation). There is a financial writer I like to read who has been predicting a “great reset” of American society for several years. COVID-19 may have precipitated that reset, and things may never be the same.
Dr. Coldiron is in private practice but maintains a clinical assistant professorship at the University of Cincinnati. He cares for patients, teaches medical students and residents, and has several active clinical research projects. Dr. Coldiron is the author of more than 80 scientific letters, papers, and several book chapters, and he speaks frequently on a variety of topics. He is a past president of the American Academy of Dermatology. Write to him at dermnews@mdedge.com. He has no disclosures.
The last few weeks have been confusing and a little overwhelming. A hodgepodge of rapid-fire publications of potential treatments and multiple, sometimes confusing government mandates and initiatives have inundated us. The overriding theme is clear, though: Let’s first concentrate on keeping our civilization intact. State governments have been largely focused on “flattening the curve” of new infections. And the longer we slow this disease down, the better we learn how to treat it.
Multiple existing medications, repurposed from all walks of the pharmacologic world, have been screened and shown to have potential therapeutic benefit, and they are being tested even as I write this column. The nasty form of this disease is a unique form of adult respiratory distress syndrome, and the terminal event appears to be a form of disseminated intravascular coagulation, which may respond to unexpected therapies, such as clot busters (J Thromb Haemost. 2020 Apr 8. doi: 10.1111/jth.14828).
Now, let’s consider the more mundane issue of keeping your medical practice alive.
Some state medical boards have relaxed the rules on licensing, and the federal government on HIPAA compliance, so that telemedicine has finally become practical. Some EHR vendors have even rushed out modules to make it easier to conduct visits with patients through their patient portals. This has all made it almost practical to see, monitor, and treat existing patients with chronic conditions, and even new ones who do not require a biopsy.
But it has also become clear that telemedicine is not a long-term means of keeping your practice viable, at least not in your practice’s current form. It can be difficult to enroll new patients and the process of collecting copays and deductibles can be frustrating and slow. There may also resistance from our patients, who may be used to having this sort of service performed by us free-of-charge. Those selfies that in the past you may have viewed, called the patient to discuss, and then called their medication into the pharmacy – all as a convenience – are coming back to haunt you. It was free before, they say, what has changed?
Another obstacle, as always, is reimbursement. There is an inconsistent patchwork of private insurance coverage that may or may not pay you. The American Academy of Dermatology has put together an excellent resource on its web site on all matters regarding COVID-19 to help you.
But the underlying undeniable reality is that you cannot support your current practice model long term with telemedicine because only about 30% of dermatology reimbursement comes from evaluation and management codes, according to a recently published study – and the rest, procedures, obviously requires patient contact (JAMA Surg. 2020 Apr 15. doi: 10.1001/jamasurg.2020.0422).
The federal government has been economically responsive by injecting money into businesses with less than 500 employees. Most of you will be eligible and probably already have applied for the Paycheck Protection Program. These are small business “loans” that your bank puts the paperwork in for, which can total up to 2.5 times one month’s average payroll. These “loans” may be 100% forgivable (75% must come from two months payroll, another 25% rent and expenses) if you do not lay anyone off.
Employees can be kept busy doing other tasks besides directly helping with patients. Like many of you with state-mandated lockdowns, my office has never been so clean, the cabinets so well stocked, and the files so organized. The stock room has been cleaned out, and any extra personal protective gear has been donated to the hospital and emergency medical services. We have landscaped the front of our building and if it warms up, we will seal and remark the parking lot. You get my drift. I have also applied for and received an advance of three months of Medicare payments, which will be automatically paid back as practice resumes. This is in effect an interest-free loan. A few days ago, my business checking account received a deposit from the Department of Health & Human Services for 6.1% of last year’s Medicare billings. This is unexpected, no obligation support to help keep your medical office open in the time of COVID-19. It appears that the office and practice will be able to weather the fire.
Assuming our practices survive more or less intact, there are major social consequences to consider. Society is a conglomeration of individuals, and individuals act on their Maslow’s hierarchy of needs (a concept introduced by psychologist Abraham Maslow, PhD, over 75 years ago). Our society has already slid down several of Maslow’s levels. We have reset to about level two, which is safety, one level above physiologic needs. Recall the grocery store fights. Look at the gun sales. The toilet paper roll has been reset from wheel of fortune spin to safe cracking mode.
This reset of the societal mindset has many ramifications you may not normally consider. For example, who will risk buying up to that dream home or purchasing a second home, if you are being told to shelter in place? Fewer may gamble $300,000 on a college education at a less-than-top-50 school. Who even knows when college will start next year. Who is going to take that promotion to New York City, or even New Jersey, and ride the train and subway to work every day? Who wants to commute through the crowded airport on the jam packed “plane train”?
It is easy to predict we will see a severe recession followed by higher taxes and inflation (stagflation). There is a financial writer I like to read who has been predicting a “great reset” of American society for several years. COVID-19 may have precipitated that reset, and things may never be the same.
Dr. Coldiron is in private practice but maintains a clinical assistant professorship at the University of Cincinnati. He cares for patients, teaches medical students and residents, and has several active clinical research projects. Dr. Coldiron is the author of more than 80 scientific letters, papers, and several book chapters, and he speaks frequently on a variety of topics. He is a past president of the American Academy of Dermatology. Write to him at dermnews@mdedge.com. He has no disclosures.
Excessive sleepiness linked to heart disease, cancer, and diabetes
, new research suggests. A study of almost 11,000 participants shows those who reported excessive sleepiness were twice as likely as their nonsleepy counterparts to develop these conditions. Hypersomnolence was also linked to development of musculoskeletal and connective tissue conditions.
“Paying attention to sleepiness in older adults could help doctors predict and prevent future medical conditions,” study investigator Maurice M. Ohayon, MD, PhD, Stanford University, California, said in a news release.
The findings were released March 1 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Early warning sign
Prior research has suggested an association between hypersomnolence and several psychiatric disorders, as well as cognitive decline and Alzheimer’s disease. However, its role in the development of other medical conditions is not as well studied.
The current investigation included 10,930 adults who were interviewed by phone on two separate occasions 3 years apart. At the second interview, 3,701 participants were at least 65 years old and 59% were women.
About 23% of the elderly participants reported hypersomnolence in the first interview and 24% reported it in the second interview. Of these individuals, 41% said during the first and second interviews that excessive daytime sleepiness was a chronic problem.
After adjusting for gender and obstructive sleep apnea status, participants who reported hypersomnolence in the first interview had more than a twofold greater risk of developing diabetes (relative risk [RR], 2.3; 95% CI, 1.5 - 3.4) or hypertension (RR, 2.3; 95% CI, 1.5 - 3.4) 3 years later than those who did not report this problem. They were also twice as likely to develop cancer (RR, 2.0; 95% CI, 1.1 - 3.8).
Of the 840 participants who reported hypersomnolence at the first interview, 52 (6.2%) developed diabetes compared with 74 (2.9%) who did not have excessive daytime sleepiness. Twenty (2.4%) individuals who reported hypersomnolence developed cancer compared with 21 (0.8%) who did not have it. Chronic hypersomnolence was associated with a greater than twofold increased risk of developing heart disease (RR, 2.5; 95% CI, 1.8 - 3.4).
Those who reported hypersomnolence at the second interview also were 50% more likely to have diseases of the musculoskeletal system and connective tissue, such as arthritis, tendinitis, and lupus, than their peers who did not have excessive daytime sleepiness.
The findings suggest that hypersomnolence in the elderly “can be an early sign of a developing medical condition,” the investigators wrote.
A limitation of the study is that it relied on participants’ memories rather than monitoring their sleep length and quality and daytime sleepiness in a sleep clinic, they noted.
Sleep as a vital sign?
Commenting on the findings, Harly Greenberg, MD, medical director at the Northwell Health Sleep Disorders Center, New York City, called the study “informative.”
However, because the findings were associations, “the study does not necessarily indicate that hypersomnolence itself is causal for these conditions. Rather excessive sleepiness may be a marker of sleep disorders that can cause sleepiness as well as contribute to the risk of these medical conditions,” said Dr. Greenberg, who was not involved with the research.
“The takeaway point from this study is that excessive sleepiness should not be ignored. Not only does it impair quality of life, daytime function, and vigilance and increase risk of sleepiness-related accidents, it may also be a marker for serious sleep disorders that can increase risk for medical disorders,” he said.
Also commenting on the study, Nathaniel Watson, MD, professor of neurology at the University of Washington (UW) and director of the UW Medicine Sleep Clinic, said it is “not surprising” that excessive daytime sleepiness might contribute to diabetes, hypertension, and other diseases.
“Sleep is something we spend a third of our lives doing. It impacts nearly every aspect of human physiology and we have a lot of basic science and epidemiologic research that shows when sleep is either inadequate or of poor quality or not timed correctly it can be associated with some of these untoward health outcomes,” said Watson, who is a past president of the American Academy of Sleep Medicine.
“This research just provides further evidence in support of the importance of sleep for overall health and well-being,” he added.
Asking patients about sleepiness, sleep, or sleep quality should be a “vital sign just like temperature, blood pressure, weight, and these other measures,” Dr. Watson said.
The study was supported by the Arrillaga Foundation. Drs. Ohayon, Greenberg, and Watson have reported no relevant financial relationships.
This article first appeared on Medscape.com.
, new research suggests. A study of almost 11,000 participants shows those who reported excessive sleepiness were twice as likely as their nonsleepy counterparts to develop these conditions. Hypersomnolence was also linked to development of musculoskeletal and connective tissue conditions.
“Paying attention to sleepiness in older adults could help doctors predict and prevent future medical conditions,” study investigator Maurice M. Ohayon, MD, PhD, Stanford University, California, said in a news release.
The findings were released March 1 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Early warning sign
Prior research has suggested an association between hypersomnolence and several psychiatric disorders, as well as cognitive decline and Alzheimer’s disease. However, its role in the development of other medical conditions is not as well studied.
The current investigation included 10,930 adults who were interviewed by phone on two separate occasions 3 years apart. At the second interview, 3,701 participants were at least 65 years old and 59% were women.
About 23% of the elderly participants reported hypersomnolence in the first interview and 24% reported it in the second interview. Of these individuals, 41% said during the first and second interviews that excessive daytime sleepiness was a chronic problem.
After adjusting for gender and obstructive sleep apnea status, participants who reported hypersomnolence in the first interview had more than a twofold greater risk of developing diabetes (relative risk [RR], 2.3; 95% CI, 1.5 - 3.4) or hypertension (RR, 2.3; 95% CI, 1.5 - 3.4) 3 years later than those who did not report this problem. They were also twice as likely to develop cancer (RR, 2.0; 95% CI, 1.1 - 3.8).
Of the 840 participants who reported hypersomnolence at the first interview, 52 (6.2%) developed diabetes compared with 74 (2.9%) who did not have excessive daytime sleepiness. Twenty (2.4%) individuals who reported hypersomnolence developed cancer compared with 21 (0.8%) who did not have it. Chronic hypersomnolence was associated with a greater than twofold increased risk of developing heart disease (RR, 2.5; 95% CI, 1.8 - 3.4).
Those who reported hypersomnolence at the second interview also were 50% more likely to have diseases of the musculoskeletal system and connective tissue, such as arthritis, tendinitis, and lupus, than their peers who did not have excessive daytime sleepiness.
The findings suggest that hypersomnolence in the elderly “can be an early sign of a developing medical condition,” the investigators wrote.
A limitation of the study is that it relied on participants’ memories rather than monitoring their sleep length and quality and daytime sleepiness in a sleep clinic, they noted.
Sleep as a vital sign?
Commenting on the findings, Harly Greenberg, MD, medical director at the Northwell Health Sleep Disorders Center, New York City, called the study “informative.”
However, because the findings were associations, “the study does not necessarily indicate that hypersomnolence itself is causal for these conditions. Rather excessive sleepiness may be a marker of sleep disorders that can cause sleepiness as well as contribute to the risk of these medical conditions,” said Dr. Greenberg, who was not involved with the research.
“The takeaway point from this study is that excessive sleepiness should not be ignored. Not only does it impair quality of life, daytime function, and vigilance and increase risk of sleepiness-related accidents, it may also be a marker for serious sleep disorders that can increase risk for medical disorders,” he said.
Also commenting on the study, Nathaniel Watson, MD, professor of neurology at the University of Washington (UW) and director of the UW Medicine Sleep Clinic, said it is “not surprising” that excessive daytime sleepiness might contribute to diabetes, hypertension, and other diseases.
“Sleep is something we spend a third of our lives doing. It impacts nearly every aspect of human physiology and we have a lot of basic science and epidemiologic research that shows when sleep is either inadequate or of poor quality or not timed correctly it can be associated with some of these untoward health outcomes,” said Watson, who is a past president of the American Academy of Sleep Medicine.
“This research just provides further evidence in support of the importance of sleep for overall health and well-being,” he added.
Asking patients about sleepiness, sleep, or sleep quality should be a “vital sign just like temperature, blood pressure, weight, and these other measures,” Dr. Watson said.
The study was supported by the Arrillaga Foundation. Drs. Ohayon, Greenberg, and Watson have reported no relevant financial relationships.
This article first appeared on Medscape.com.
, new research suggests. A study of almost 11,000 participants shows those who reported excessive sleepiness were twice as likely as their nonsleepy counterparts to develop these conditions. Hypersomnolence was also linked to development of musculoskeletal and connective tissue conditions.
“Paying attention to sleepiness in older adults could help doctors predict and prevent future medical conditions,” study investigator Maurice M. Ohayon, MD, PhD, Stanford University, California, said in a news release.
The findings were released March 1 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Early warning sign
Prior research has suggested an association between hypersomnolence and several psychiatric disorders, as well as cognitive decline and Alzheimer’s disease. However, its role in the development of other medical conditions is not as well studied.
The current investigation included 10,930 adults who were interviewed by phone on two separate occasions 3 years apart. At the second interview, 3,701 participants were at least 65 years old and 59% were women.
About 23% of the elderly participants reported hypersomnolence in the first interview and 24% reported it in the second interview. Of these individuals, 41% said during the first and second interviews that excessive daytime sleepiness was a chronic problem.
After adjusting for gender and obstructive sleep apnea status, participants who reported hypersomnolence in the first interview had more than a twofold greater risk of developing diabetes (relative risk [RR], 2.3; 95% CI, 1.5 - 3.4) or hypertension (RR, 2.3; 95% CI, 1.5 - 3.4) 3 years later than those who did not report this problem. They were also twice as likely to develop cancer (RR, 2.0; 95% CI, 1.1 - 3.8).
Of the 840 participants who reported hypersomnolence at the first interview, 52 (6.2%) developed diabetes compared with 74 (2.9%) who did not have excessive daytime sleepiness. Twenty (2.4%) individuals who reported hypersomnolence developed cancer compared with 21 (0.8%) who did not have it. Chronic hypersomnolence was associated with a greater than twofold increased risk of developing heart disease (RR, 2.5; 95% CI, 1.8 - 3.4).
Those who reported hypersomnolence at the second interview also were 50% more likely to have diseases of the musculoskeletal system and connective tissue, such as arthritis, tendinitis, and lupus, than their peers who did not have excessive daytime sleepiness.
The findings suggest that hypersomnolence in the elderly “can be an early sign of a developing medical condition,” the investigators wrote.
A limitation of the study is that it relied on participants’ memories rather than monitoring their sleep length and quality and daytime sleepiness in a sleep clinic, they noted.
Sleep as a vital sign?
Commenting on the findings, Harly Greenberg, MD, medical director at the Northwell Health Sleep Disorders Center, New York City, called the study “informative.”
However, because the findings were associations, “the study does not necessarily indicate that hypersomnolence itself is causal for these conditions. Rather excessive sleepiness may be a marker of sleep disorders that can cause sleepiness as well as contribute to the risk of these medical conditions,” said Dr. Greenberg, who was not involved with the research.
“The takeaway point from this study is that excessive sleepiness should not be ignored. Not only does it impair quality of life, daytime function, and vigilance and increase risk of sleepiness-related accidents, it may also be a marker for serious sleep disorders that can increase risk for medical disorders,” he said.
Also commenting on the study, Nathaniel Watson, MD, professor of neurology at the University of Washington (UW) and director of the UW Medicine Sleep Clinic, said it is “not surprising” that excessive daytime sleepiness might contribute to diabetes, hypertension, and other diseases.
“Sleep is something we spend a third of our lives doing. It impacts nearly every aspect of human physiology and we have a lot of basic science and epidemiologic research that shows when sleep is either inadequate or of poor quality or not timed correctly it can be associated with some of these untoward health outcomes,” said Watson, who is a past president of the American Academy of Sleep Medicine.
“This research just provides further evidence in support of the importance of sleep for overall health and well-being,” he added.
Asking patients about sleepiness, sleep, or sleep quality should be a “vital sign just like temperature, blood pressure, weight, and these other measures,” Dr. Watson said.
The study was supported by the Arrillaga Foundation. Drs. Ohayon, Greenberg, and Watson have reported no relevant financial relationships.
This article first appeared on Medscape.com.
Transitions: From editor to president
As I transition out of the role of medical editor for The Hospitalist, and into the role of president of the Society of Hospital Medicine, it is a bittersweet but exciting transition.
In the relatively short time I have served as editor, so much has changed in our hospitalist community! In the last 4 years alone, we have increased:
• Membership from 14,000 to 20,000
• Chapters from 46 to 68
• Special Interest Groups from 8 to 22
• Subscribers to The Hospitalist from 15,000 to 30,000.
This is all a testimony to the engagement of our membership. SHM is clearly no ordinary specialty society; it is full of incredibly intelligent, invested, and talented members, who actively participate in the society for the betterment of their local teams and patients. It is such a privilege to lead this amazing team.
As for The Hospitalist, I would like to warmly welcome Weijen Chang, MD, FACP, SFHM, as the incoming editor. Weijen served as the pediatrics editor for many years and has been extensively involved on The Hospitalist’s editorial advisory board for even longer. He also has a broad track record of experience as a hospitalist in many settings; that combined with an inquisitive mind and curious spirit makes him the ideal editor for The Hospitalist. He brings energy and enthusiasm and will serve us very well.
While I will miss being intimately involved with The Hospitalist, I am very much looking forward to serving in the role of SHM president starting in April. During this pivotal year, SHM will transition from our one-and-only CEO, Larry Wellikson, MD, MHM, to our newly minted CEO Eric Howell, MD, MHM, who will officially transition in July 2020.
This is a very exciting time in the history of SHM, as we refocus on our mission, vision, values, and core activities. As a membership organization, our primary focus has been, and will always be, serving our member’s needs! As a “Big Tent” organization, we have always supported a broad and diverse set of members, ranging far beyond physician hospitalists, to trainees, medical students, nurse practitioners, physician assistants, practice administrators, and other hospital-based specialists. Being in such a dynamic industry, our diverse members needs are constantly and rapidly changing along with the dramatic transformations in the landscape, including profound shifts in care and reimbursement models that could change the very definition of a hospitalist.
While we continuously scour the landscape and anticipate our members’ needs, we will never lose sight of our core mission, which is to promote exceptional care for hospitalized patients. We will continue to do this by supporting all of our members with tools and materials to help them be the very best they can, for all of our patients. As a humble and servant leader, I am prepared to meet the demands and challenges of the year ahead, with energy and focus, and fulfill the needs of our members, so that together, we can make health care better for those we serve.
Thank you in advance for allowing me the great pleasure of serving this amazing and innovative organization!
Dr. Scheurer is chief quality officer and professor of medicine at the Medical University of South Carolina, Charleston. She is the outgoing medical editor of The Hospitalist, and president-elect of SHM.
As I transition out of the role of medical editor for The Hospitalist, and into the role of president of the Society of Hospital Medicine, it is a bittersweet but exciting transition.
In the relatively short time I have served as editor, so much has changed in our hospitalist community! In the last 4 years alone, we have increased:
• Membership from 14,000 to 20,000
• Chapters from 46 to 68
• Special Interest Groups from 8 to 22
• Subscribers to The Hospitalist from 15,000 to 30,000.
This is all a testimony to the engagement of our membership. SHM is clearly no ordinary specialty society; it is full of incredibly intelligent, invested, and talented members, who actively participate in the society for the betterment of their local teams and patients. It is such a privilege to lead this amazing team.
As for The Hospitalist, I would like to warmly welcome Weijen Chang, MD, FACP, SFHM, as the incoming editor. Weijen served as the pediatrics editor for many years and has been extensively involved on The Hospitalist’s editorial advisory board for even longer. He also has a broad track record of experience as a hospitalist in many settings; that combined with an inquisitive mind and curious spirit makes him the ideal editor for The Hospitalist. He brings energy and enthusiasm and will serve us very well.
While I will miss being intimately involved with The Hospitalist, I am very much looking forward to serving in the role of SHM president starting in April. During this pivotal year, SHM will transition from our one-and-only CEO, Larry Wellikson, MD, MHM, to our newly minted CEO Eric Howell, MD, MHM, who will officially transition in July 2020.
This is a very exciting time in the history of SHM, as we refocus on our mission, vision, values, and core activities. As a membership organization, our primary focus has been, and will always be, serving our member’s needs! As a “Big Tent” organization, we have always supported a broad and diverse set of members, ranging far beyond physician hospitalists, to trainees, medical students, nurse practitioners, physician assistants, practice administrators, and other hospital-based specialists. Being in such a dynamic industry, our diverse members needs are constantly and rapidly changing along with the dramatic transformations in the landscape, including profound shifts in care and reimbursement models that could change the very definition of a hospitalist.
While we continuously scour the landscape and anticipate our members’ needs, we will never lose sight of our core mission, which is to promote exceptional care for hospitalized patients. We will continue to do this by supporting all of our members with tools and materials to help them be the very best they can, for all of our patients. As a humble and servant leader, I am prepared to meet the demands and challenges of the year ahead, with energy and focus, and fulfill the needs of our members, so that together, we can make health care better for those we serve.
Thank you in advance for allowing me the great pleasure of serving this amazing and innovative organization!
Dr. Scheurer is chief quality officer and professor of medicine at the Medical University of South Carolina, Charleston. She is the outgoing medical editor of The Hospitalist, and president-elect of SHM.
As I transition out of the role of medical editor for The Hospitalist, and into the role of president of the Society of Hospital Medicine, it is a bittersweet but exciting transition.
In the relatively short time I have served as editor, so much has changed in our hospitalist community! In the last 4 years alone, we have increased:
• Membership from 14,000 to 20,000
• Chapters from 46 to 68
• Special Interest Groups from 8 to 22
• Subscribers to The Hospitalist from 15,000 to 30,000.
This is all a testimony to the engagement of our membership. SHM is clearly no ordinary specialty society; it is full of incredibly intelligent, invested, and talented members, who actively participate in the society for the betterment of their local teams and patients. It is such a privilege to lead this amazing team.
As for The Hospitalist, I would like to warmly welcome Weijen Chang, MD, FACP, SFHM, as the incoming editor. Weijen served as the pediatrics editor for many years and has been extensively involved on The Hospitalist’s editorial advisory board for even longer. He also has a broad track record of experience as a hospitalist in many settings; that combined with an inquisitive mind and curious spirit makes him the ideal editor for The Hospitalist. He brings energy and enthusiasm and will serve us very well.
While I will miss being intimately involved with The Hospitalist, I am very much looking forward to serving in the role of SHM president starting in April. During this pivotal year, SHM will transition from our one-and-only CEO, Larry Wellikson, MD, MHM, to our newly minted CEO Eric Howell, MD, MHM, who will officially transition in July 2020.
This is a very exciting time in the history of SHM, as we refocus on our mission, vision, values, and core activities. As a membership organization, our primary focus has been, and will always be, serving our member’s needs! As a “Big Tent” organization, we have always supported a broad and diverse set of members, ranging far beyond physician hospitalists, to trainees, medical students, nurse practitioners, physician assistants, practice administrators, and other hospital-based specialists. Being in such a dynamic industry, our diverse members needs are constantly and rapidly changing along with the dramatic transformations in the landscape, including profound shifts in care and reimbursement models that could change the very definition of a hospitalist.
While we continuously scour the landscape and anticipate our members’ needs, we will never lose sight of our core mission, which is to promote exceptional care for hospitalized patients. We will continue to do this by supporting all of our members with tools and materials to help them be the very best they can, for all of our patients. As a humble and servant leader, I am prepared to meet the demands and challenges of the year ahead, with energy and focus, and fulfill the needs of our members, so that together, we can make health care better for those we serve.
Thank you in advance for allowing me the great pleasure of serving this amazing and innovative organization!
Dr. Scheurer is chief quality officer and professor of medicine at the Medical University of South Carolina, Charleston. She is the outgoing medical editor of The Hospitalist, and president-elect of SHM.
A healthy heart in youth protects the brain later on
, new research suggests. New findings from the Coronary Artery Risk Development in Young Adults (CARDIA) study show that individuals who had better cardiovascular health in their 20s scored higher on tests of thinking and memory 30 years later than their peers who had poorer cardiovascular health as young adults.
“We have learned that midlife vascular risk factors, rather than risk factors in older age, are particularly associated with cognition in older age,” study author Farzaneh Sorond, MD, PhD, Northwestern University Feinberg School of Medicine, Chicago, Illinois, told Medscape Medical News
“Our findings from the CARDIA study expand this knowledge and show that vascular health during young adulthood, rather than midlife, is also specifically associated with brain vascular health and cognitive function” in later life, Dr. Sorond said.
“These results indicate that people need to pay close attention to their health even in their early 20s,” she added in a statement.
The findings were released February 26 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Early prevention key
The analysis examined data from 189 participants (45% women, 45% black) in the CARDIA study who were followed for 30 years. The mean age at baseline was 24 years.
Vascular risk factors were assessed eight times during the 30-year study period. A cardiovascular health score (range, 0 – 10) was calculated on the basis of smoking status, body mass index, blood pressure, total cholesterol level, and fasting glucose level.
At the final assessment, which was conducted 30 years after baseline, dynamic cerebral autoregulation was calculated as the transfer function phase of the spontaneous oscillations in blood pressure and flow velocity in the middle cerebral artery using transcranial Doppler ultrasound.
Cognition was assessed using a series of standard neuropsychological tests. Multivariate linear regression models were used to assess the association of heart health at each visit with cerebral autoregulation and cognition.
Results showed that the participants with better cardiovascular health at the beginning of the study were more likely to have higher cognitive test scores 30 years later in comparison with those with worse cardiovascular health.
For example, on a test of attention skills in which scores ranged from 7 to 103, each point higher on the cardiovascular health score was associated with a 2.2-point higher score in attention skills. These results held up after adjustment for other factors that could affect cognitive test scores, such as education level.
Better cardiovascular health at baseline and at 7 years was also associated with significantly better dynamic cerebral autoregulation.
“Our findings suggest that the earlier vascular risk factors are modified and addressed, the more likely that they will impact brain health across life span,” Dr. Sorond said.
“Moreover, these findings underscore the importance of primordial prevention and addressing the significant knowledge gap that currently exist in this domain,” she added.
Good for the heart, good for the brain
Commenting on the findings, Rebecca Edelmayer, PhD, director of scientific engagement for the Alzheimer’s Association, said that the longitudinal study adds to the growing body of research showing that “what is good for the heart is also good for the brain.”
“This is still a relatively small study, and larger studies have been published that show similar results,” said Dr. Edelmayer, who was not involved with the research.
She noted that results of the large SPRINT-MIND trial, published last year in JAMA and reported by Medscape Medical News, “provided the strongest evidence to date about reducing risk of mild cognitive impairment through the management of high blood pressure.”
The Alzheimer’s Association has provided seed funding for SPRINT-MIND 2.0, a 2-year extension of the study to evaluate whether intensive blood pressure management reduces risk for all-cause dementia.
Support for the current study was provided by the National Institutes of Health, the National Heart, Lung, and Blood Institute, the University of Alabama at Birmingham, Northwestern University, the University of Minnesota, and the Kaiser Foundation Research Institute. Drs. Sorond and Edelmayer have reported no relevant financial relationships.
This article first appeared on Medscape.com.
, new research suggests. New findings from the Coronary Artery Risk Development in Young Adults (CARDIA) study show that individuals who had better cardiovascular health in their 20s scored higher on tests of thinking and memory 30 years later than their peers who had poorer cardiovascular health as young adults.
“We have learned that midlife vascular risk factors, rather than risk factors in older age, are particularly associated with cognition in older age,” study author Farzaneh Sorond, MD, PhD, Northwestern University Feinberg School of Medicine, Chicago, Illinois, told Medscape Medical News
“Our findings from the CARDIA study expand this knowledge and show that vascular health during young adulthood, rather than midlife, is also specifically associated with brain vascular health and cognitive function” in later life, Dr. Sorond said.
“These results indicate that people need to pay close attention to their health even in their early 20s,” she added in a statement.
The findings were released February 26 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Early prevention key
The analysis examined data from 189 participants (45% women, 45% black) in the CARDIA study who were followed for 30 years. The mean age at baseline was 24 years.
Vascular risk factors were assessed eight times during the 30-year study period. A cardiovascular health score (range, 0 – 10) was calculated on the basis of smoking status, body mass index, blood pressure, total cholesterol level, and fasting glucose level.
At the final assessment, which was conducted 30 years after baseline, dynamic cerebral autoregulation was calculated as the transfer function phase of the spontaneous oscillations in blood pressure and flow velocity in the middle cerebral artery using transcranial Doppler ultrasound.
Cognition was assessed using a series of standard neuropsychological tests. Multivariate linear regression models were used to assess the association of heart health at each visit with cerebral autoregulation and cognition.
Results showed that the participants with better cardiovascular health at the beginning of the study were more likely to have higher cognitive test scores 30 years later in comparison with those with worse cardiovascular health.
For example, on a test of attention skills in which scores ranged from 7 to 103, each point higher on the cardiovascular health score was associated with a 2.2-point higher score in attention skills. These results held up after adjustment for other factors that could affect cognitive test scores, such as education level.
Better cardiovascular health at baseline and at 7 years was also associated with significantly better dynamic cerebral autoregulation.
“Our findings suggest that the earlier vascular risk factors are modified and addressed, the more likely that they will impact brain health across life span,” Dr. Sorond said.
“Moreover, these findings underscore the importance of primordial prevention and addressing the significant knowledge gap that currently exist in this domain,” she added.
Good for the heart, good for the brain
Commenting on the findings, Rebecca Edelmayer, PhD, director of scientific engagement for the Alzheimer’s Association, said that the longitudinal study adds to the growing body of research showing that “what is good for the heart is also good for the brain.”
“This is still a relatively small study, and larger studies have been published that show similar results,” said Dr. Edelmayer, who was not involved with the research.
She noted that results of the large SPRINT-MIND trial, published last year in JAMA and reported by Medscape Medical News, “provided the strongest evidence to date about reducing risk of mild cognitive impairment through the management of high blood pressure.”
The Alzheimer’s Association has provided seed funding for SPRINT-MIND 2.0, a 2-year extension of the study to evaluate whether intensive blood pressure management reduces risk for all-cause dementia.
Support for the current study was provided by the National Institutes of Health, the National Heart, Lung, and Blood Institute, the University of Alabama at Birmingham, Northwestern University, the University of Minnesota, and the Kaiser Foundation Research Institute. Drs. Sorond and Edelmayer have reported no relevant financial relationships.
This article first appeared on Medscape.com.
, new research suggests. New findings from the Coronary Artery Risk Development in Young Adults (CARDIA) study show that individuals who had better cardiovascular health in their 20s scored higher on tests of thinking and memory 30 years later than their peers who had poorer cardiovascular health as young adults.
“We have learned that midlife vascular risk factors, rather than risk factors in older age, are particularly associated with cognition in older age,” study author Farzaneh Sorond, MD, PhD, Northwestern University Feinberg School of Medicine, Chicago, Illinois, told Medscape Medical News
“Our findings from the CARDIA study expand this knowledge and show that vascular health during young adulthood, rather than midlife, is also specifically associated with brain vascular health and cognitive function” in later life, Dr. Sorond said.
“These results indicate that people need to pay close attention to their health even in their early 20s,” she added in a statement.
The findings were released February 26 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Early prevention key
The analysis examined data from 189 participants (45% women, 45% black) in the CARDIA study who were followed for 30 years. The mean age at baseline was 24 years.
Vascular risk factors were assessed eight times during the 30-year study period. A cardiovascular health score (range, 0 – 10) was calculated on the basis of smoking status, body mass index, blood pressure, total cholesterol level, and fasting glucose level.
At the final assessment, which was conducted 30 years after baseline, dynamic cerebral autoregulation was calculated as the transfer function phase of the spontaneous oscillations in blood pressure and flow velocity in the middle cerebral artery using transcranial Doppler ultrasound.
Cognition was assessed using a series of standard neuropsychological tests. Multivariate linear regression models were used to assess the association of heart health at each visit with cerebral autoregulation and cognition.
Results showed that the participants with better cardiovascular health at the beginning of the study were more likely to have higher cognitive test scores 30 years later in comparison with those with worse cardiovascular health.
For example, on a test of attention skills in which scores ranged from 7 to 103, each point higher on the cardiovascular health score was associated with a 2.2-point higher score in attention skills. These results held up after adjustment for other factors that could affect cognitive test scores, such as education level.
Better cardiovascular health at baseline and at 7 years was also associated with significantly better dynamic cerebral autoregulation.
“Our findings suggest that the earlier vascular risk factors are modified and addressed, the more likely that they will impact brain health across life span,” Dr. Sorond said.
“Moreover, these findings underscore the importance of primordial prevention and addressing the significant knowledge gap that currently exist in this domain,” she added.
Good for the heart, good for the brain
Commenting on the findings, Rebecca Edelmayer, PhD, director of scientific engagement for the Alzheimer’s Association, said that the longitudinal study adds to the growing body of research showing that “what is good for the heart is also good for the brain.”
“This is still a relatively small study, and larger studies have been published that show similar results,” said Dr. Edelmayer, who was not involved with the research.
She noted that results of the large SPRINT-MIND trial, published last year in JAMA and reported by Medscape Medical News, “provided the strongest evidence to date about reducing risk of mild cognitive impairment through the management of high blood pressure.”
The Alzheimer’s Association has provided seed funding for SPRINT-MIND 2.0, a 2-year extension of the study to evaluate whether intensive blood pressure management reduces risk for all-cause dementia.
Support for the current study was provided by the National Institutes of Health, the National Heart, Lung, and Blood Institute, the University of Alabama at Birmingham, Northwestern University, the University of Minnesota, and the Kaiser Foundation Research Institute. Drs. Sorond and Edelmayer have reported no relevant financial relationships.
This article first appeared on Medscape.com.
COVID-19 strikes hard at state-run veterans nursing homes
In early March, 35 residents in the Life Care Center in Kirkland, Washington, died due to complications associated with COVID-19. And that facility thus became the first example of how extremely vulnerable nursing home residents are to COVID-19. Since then, around the US, thousands of nursing home residents have died from complications of the virus. US Department of Veterans Affairs (VA) nursing homes, while rated high in VA health inspection reports, have not been exempt.
As of April 21, the VA had confirmed > 5,500 coronavirus cases in 50 states, the District of Columbia, and Puerto Rico. More than 350 veterans have died of COVID-19, according to VA data. The VA calculates its rates by health care system or VA medical center and does not provide separate data for the community living centers (CLCs).
The VA initiated an isolation strategy on March 10 that suspended most new admissions and barred outsiders from all of its 134 nursing homes. The only exception to the rule was when a patient was expected to die soon. The VA has taken other precautions as well, including extra screening and directing patients to use telehealth where possible.
State-run long-term care facilities for veterans have been hard hit across the country. At the Soldiers’ Home in Holyoke, Massachusetts, which is run by the state of Massachusetts, 5 of 11 veterans who died recently tested positive for COVID-19. At the 4 state-run nursing homes in Alabama, as of April 14, 45 people were confirmed positive and 2 residents had died. The largest outbreak was in the Bill Nichols State Veterans Home in Alexander City. Alabama State Rep. Ed Oliver and Commissioner Kent Davis, of the Alabama Department of Veterans Affairs (ADVA), are looking into how the outbreak started and whether it could have been prevented. “We have reports of lack of hand sanitizers, and those are the things we’re looking at right now,” Rep. Oliver said. The ADVA says residents who test positive are isolated for treatment, and infected employees are prohibited from entering the homes.
States have deployed National Guard troops to facilities following large scale outbreaks and multiple deaths. Pennsylvania deployed 30 National Guard troops to its Southeastern Veterans Center facility in Spring City after at least 10 veterans had died and at least 19 health care workers had tested positive for the virus. The facility is 1 of 6 extended-care facilities run by the Pennsylvania Department of Military and Veterans Affairs. In New Jersey, 40 National Guard troops, 25 New Jersey Department of Health nurses, and 90 VA nurses were deployed to 2 of its veterans facilities amid worsening outbreaks. At the Paramus facility, 155 residents had tested positive and 39 had died, and at the home in Edison, 86 veterans had tested positive and 25 died; 6 more died at a third state facility.
However, reporting remains inconsistent across many states and facilities. Only on April 19 did the Centers for Medicare and Medicaid Services (CMS) order nursing home facilities to inform residents and families about COVID-19 cases inside. This followed similar orders in New Jersey, New York, California, Washington, and other states.
“Nursing homes have been ground zero for COVID-19,” said CMS Administrator Seema Verma in a written statement. “Nursing home reporting to the [Centers for Disease Control and Prevention] is a critical component of the go-forward national COVID-19 surveillance system and to efforts to reopen America.”
In early March, 35 residents in the Life Care Center in Kirkland, Washington, died due to complications associated with COVID-19. And that facility thus became the first example of how extremely vulnerable nursing home residents are to COVID-19. Since then, around the US, thousands of nursing home residents have died from complications of the virus. US Department of Veterans Affairs (VA) nursing homes, while rated high in VA health inspection reports, have not been exempt.
As of April 21, the VA had confirmed > 5,500 coronavirus cases in 50 states, the District of Columbia, and Puerto Rico. More than 350 veterans have died of COVID-19, according to VA data. The VA calculates its rates by health care system or VA medical center and does not provide separate data for the community living centers (CLCs).
The VA initiated an isolation strategy on March 10 that suspended most new admissions and barred outsiders from all of its 134 nursing homes. The only exception to the rule was when a patient was expected to die soon. The VA has taken other precautions as well, including extra screening and directing patients to use telehealth where possible.
State-run long-term care facilities for veterans have been hard hit across the country. At the Soldiers’ Home in Holyoke, Massachusetts, which is run by the state of Massachusetts, 5 of 11 veterans who died recently tested positive for COVID-19. At the 4 state-run nursing homes in Alabama, as of April 14, 45 people were confirmed positive and 2 residents had died. The largest outbreak was in the Bill Nichols State Veterans Home in Alexander City. Alabama State Rep. Ed Oliver and Commissioner Kent Davis, of the Alabama Department of Veterans Affairs (ADVA), are looking into how the outbreak started and whether it could have been prevented. “We have reports of lack of hand sanitizers, and those are the things we’re looking at right now,” Rep. Oliver said. The ADVA says residents who test positive are isolated for treatment, and infected employees are prohibited from entering the homes.
States have deployed National Guard troops to facilities following large scale outbreaks and multiple deaths. Pennsylvania deployed 30 National Guard troops to its Southeastern Veterans Center facility in Spring City after at least 10 veterans had died and at least 19 health care workers had tested positive for the virus. The facility is 1 of 6 extended-care facilities run by the Pennsylvania Department of Military and Veterans Affairs. In New Jersey, 40 National Guard troops, 25 New Jersey Department of Health nurses, and 90 VA nurses were deployed to 2 of its veterans facilities amid worsening outbreaks. At the Paramus facility, 155 residents had tested positive and 39 had died, and at the home in Edison, 86 veterans had tested positive and 25 died; 6 more died at a third state facility.
However, reporting remains inconsistent across many states and facilities. Only on April 19 did the Centers for Medicare and Medicaid Services (CMS) order nursing home facilities to inform residents and families about COVID-19 cases inside. This followed similar orders in New Jersey, New York, California, Washington, and other states.
“Nursing homes have been ground zero for COVID-19,” said CMS Administrator Seema Verma in a written statement. “Nursing home reporting to the [Centers for Disease Control and Prevention] is a critical component of the go-forward national COVID-19 surveillance system and to efforts to reopen America.”
In early March, 35 residents in the Life Care Center in Kirkland, Washington, died due to complications associated with COVID-19. And that facility thus became the first example of how extremely vulnerable nursing home residents are to COVID-19. Since then, around the US, thousands of nursing home residents have died from complications of the virus. US Department of Veterans Affairs (VA) nursing homes, while rated high in VA health inspection reports, have not been exempt.
As of April 21, the VA had confirmed > 5,500 coronavirus cases in 50 states, the District of Columbia, and Puerto Rico. More than 350 veterans have died of COVID-19, according to VA data. The VA calculates its rates by health care system or VA medical center and does not provide separate data for the community living centers (CLCs).
The VA initiated an isolation strategy on March 10 that suspended most new admissions and barred outsiders from all of its 134 nursing homes. The only exception to the rule was when a patient was expected to die soon. The VA has taken other precautions as well, including extra screening and directing patients to use telehealth where possible.
State-run long-term care facilities for veterans have been hard hit across the country. At the Soldiers’ Home in Holyoke, Massachusetts, which is run by the state of Massachusetts, 5 of 11 veterans who died recently tested positive for COVID-19. At the 4 state-run nursing homes in Alabama, as of April 14, 45 people were confirmed positive and 2 residents had died. The largest outbreak was in the Bill Nichols State Veterans Home in Alexander City. Alabama State Rep. Ed Oliver and Commissioner Kent Davis, of the Alabama Department of Veterans Affairs (ADVA), are looking into how the outbreak started and whether it could have been prevented. “We have reports of lack of hand sanitizers, and those are the things we’re looking at right now,” Rep. Oliver said. The ADVA says residents who test positive are isolated for treatment, and infected employees are prohibited from entering the homes.
States have deployed National Guard troops to facilities following large scale outbreaks and multiple deaths. Pennsylvania deployed 30 National Guard troops to its Southeastern Veterans Center facility in Spring City after at least 10 veterans had died and at least 19 health care workers had tested positive for the virus. The facility is 1 of 6 extended-care facilities run by the Pennsylvania Department of Military and Veterans Affairs. In New Jersey, 40 National Guard troops, 25 New Jersey Department of Health nurses, and 90 VA nurses were deployed to 2 of its veterans facilities amid worsening outbreaks. At the Paramus facility, 155 residents had tested positive and 39 had died, and at the home in Edison, 86 veterans had tested positive and 25 died; 6 more died at a third state facility.
However, reporting remains inconsistent across many states and facilities. Only on April 19 did the Centers for Medicare and Medicaid Services (CMS) order nursing home facilities to inform residents and families about COVID-19 cases inside. This followed similar orders in New Jersey, New York, California, Washington, and other states.
“Nursing homes have been ground zero for COVID-19,” said CMS Administrator Seema Verma in a written statement. “Nursing home reporting to the [Centers for Disease Control and Prevention] is a critical component of the go-forward national COVID-19 surveillance system and to efforts to reopen America.”
Mislabeled clopidogrel lot recalled, may contain simvastatin
International Laboratories has initiated a voluntary recall to the consumer level in the United States of a single lot of the antiplatelet clopidogrel because it is mislabeled and may contain simvastatin, a cholesterol-lowering drug, instead of clopidogrel.
The recalled product ― lot number 117099A of clopidogrel tablets (USP 75 mg) packaged in bottles of 30 tablets ― may contain clopidogrel 75 mg tablets or it could contain simvastatin tablets (USP 10 mg), according to a company announcement posted on the US Food and Drug Administration (FDA) website.
“Missed doses of clopidogrel increases the risk of heart attack and stroke which can be life threatening. Additionally, unintentional consumption of simvastatin could include the common side effects associated with its use and may cause fetal harm when administered to a pregnant woman,” the company cautions.
To date, the company has not received any reports of harm arising from the problem that prompted the recall.
The recalled product was distributed nationwide and was delivered to distribution centers in Arkansas, Georgia, Indiana, California, and Maryland and to retail stores in all US states.
International Laboratories is notifying distributors and customers by letter and is arranging for the return of all recalled products.
For questions regarding this recall, contact Inmar by phone 855-258-7280 (weekdays between 9:00 AM and 5:00 PM EST) or by email at internationallabs@inmar.com.
Adverse reactions or quality problems experienced with the use of this product should be reported to the FDA’s MedWatch adverse event reporting program.
This article first appeared on Medscape.com.
International Laboratories has initiated a voluntary recall to the consumer level in the United States of a single lot of the antiplatelet clopidogrel because it is mislabeled and may contain simvastatin, a cholesterol-lowering drug, instead of clopidogrel.
The recalled product ― lot number 117099A of clopidogrel tablets (USP 75 mg) packaged in bottles of 30 tablets ― may contain clopidogrel 75 mg tablets or it could contain simvastatin tablets (USP 10 mg), according to a company announcement posted on the US Food and Drug Administration (FDA) website.
“Missed doses of clopidogrel increases the risk of heart attack and stroke which can be life threatening. Additionally, unintentional consumption of simvastatin could include the common side effects associated with its use and may cause fetal harm when administered to a pregnant woman,” the company cautions.
To date, the company has not received any reports of harm arising from the problem that prompted the recall.
The recalled product was distributed nationwide and was delivered to distribution centers in Arkansas, Georgia, Indiana, California, and Maryland and to retail stores in all US states.
International Laboratories is notifying distributors and customers by letter and is arranging for the return of all recalled products.
For questions regarding this recall, contact Inmar by phone 855-258-7280 (weekdays between 9:00 AM and 5:00 PM EST) or by email at internationallabs@inmar.com.
Adverse reactions or quality problems experienced with the use of this product should be reported to the FDA’s MedWatch adverse event reporting program.
This article first appeared on Medscape.com.
International Laboratories has initiated a voluntary recall to the consumer level in the United States of a single lot of the antiplatelet clopidogrel because it is mislabeled and may contain simvastatin, a cholesterol-lowering drug, instead of clopidogrel.
The recalled product ― lot number 117099A of clopidogrel tablets (USP 75 mg) packaged in bottles of 30 tablets ― may contain clopidogrel 75 mg tablets or it could contain simvastatin tablets (USP 10 mg), according to a company announcement posted on the US Food and Drug Administration (FDA) website.
“Missed doses of clopidogrel increases the risk of heart attack and stroke which can be life threatening. Additionally, unintentional consumption of simvastatin could include the common side effects associated with its use and may cause fetal harm when administered to a pregnant woman,” the company cautions.
To date, the company has not received any reports of harm arising from the problem that prompted the recall.
The recalled product was distributed nationwide and was delivered to distribution centers in Arkansas, Georgia, Indiana, California, and Maryland and to retail stores in all US states.
International Laboratories is notifying distributors and customers by letter and is arranging for the return of all recalled products.
For questions regarding this recall, contact Inmar by phone 855-258-7280 (weekdays between 9:00 AM and 5:00 PM EST) or by email at internationallabs@inmar.com.
Adverse reactions or quality problems experienced with the use of this product should be reported to the FDA’s MedWatch adverse event reporting program.
This article first appeared on Medscape.com.
New gene variants linked to tau deposits in Alzheimer’s disease
Investigator Vijay Ramanan, MD, PhD, behavioral neurology fellow, Mayo Clinic, Rochester, Minnesota, noted that this is the first genome-wide study of tau positron-emission tomography (PET) and that it identifies variations in DNA profiles associated with tau load in the brain.
“These early results represent an important step to better understanding why some individuals have a greater susceptibility to tau accumulation while others are more resistant,” Dr. Ramanan told Medscape Medical News.
“As we learn more about that process, the longer-term hope would be to use that information to better predict who may become symptomatic from the disease and to develop targets for treatment based on those individualized profiles,” he added.
The findings were released March 9 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Genome-wide associations
The researchers assessed genetic profile and regional tau-PET data for 754 participants (mean age, 72.4 years; 54.6% men; 87% cognitively unimpaired) in the Mayo Clinic Study of Aging.
They found that individuals with novel genetic variants on chromosomes 1 and 5 had a higher amount of tau in their brains, compared with their counterparts who had more typical gene sequences in those regions.
The genetic variants were found in 2% to 3% of the group, and those individuals had about 10% higher tau levels than patients who did not have the variants.
Specifically, investigators identified genome-wide significant associations with higher tau for rs76752255 in protein phosphatase 2 regulatory subunit B (PPP2R2B), an enzyme of the PPP2R2B gene on chromosome 5, and for rs115862481 in an intergenic region on chromosome 1. Each minor allele had a stronger association in amyloid-positive than in amyloid-negative individuals.
In addition, three single-nucleotide polymorphisms (SNPs) within microtubule-associated protein tau (MAPT) genes displayed nominal associations to tau burden. These included rs3785883, which previously was found to be associated with higher levels of cerebrospinal fluid tau in an independent cohort.
However, no associations with tau burden were identified for the SNPs defining apolipoprotein E (APOE) e4 or for genotyped SNPs previously associated with Alzheimer’s disease in large case-control studies.
“The fact that these variants are new, coupled with the lack of strong signal for tau in APOE, reinforces the concept that Alzheimer’s disease is complex and that across patients, different sets of genes may be involved in entering into the Alzheimer’s disease pathway versus modifying its course or symptomatic expression,” Dr. Ramanan said.
“Lots of exciting work is ongoing to try to disentangle those issues, and this study is a valuable step on that path,” he added.
Dr. Ramanan said there is a great need for a better understanding of the factors that influence tau deposition, particularly since the burden and location of tau buildup in the brain are closely related to cognitive symptoms of Alzheimer’s disease.
He noted that the approach of “imaging genetics”—using brain scans that capture disease biomarkers and connecting those with data on the genome to improve knowledge about risk and treatment targeting—has been growing. However, only recently has it become possible to apply that framework to tau.
Dr, Ramanan emphasized that replication studies and functional characterization of these novel genetic findings are needed.
“Distant” clinical implications
Commenting on the study, Howard Fillit, MD, founding executive director and chief science officer of the Alzheimer’s Drug Discovery Foundation, said that there is currently “a fair amount of this kind of work going on” in assessing polygenetic risk in Alzheimer’s disease. This includes examining APOE as well as “a whole bunch of other genes” associated with the disease.
“Far and away, the APOE genetic association with Alzheimer’s disease risk is the most powerful one. In and of themselves, none of these other risk genes cause Alzheimer’s disease, they only contribute to risk,” Dr. Fillit noted.
“This study found some new genes that were associated with susceptibility to tau deposition, but at the end of the day, they are just associations. They don’t prove causality,” he added.
“It’s interesting, but really hard to know what to conclude from it; and the clinical implications, I think, are rather distant,” Dr. Fillit concluded.
The study was supported by the National Institutes of Health; the Gerald and Henrietta Rauenhorst Foundation; the Alexander Family Alzheimer’s Disease Research Professorship of Mayo Clinic; the Mayo Foundation for Medical Education and Research; a Liston Award; the Elsie and Marvin Dekelboum Family Foundation; the Schuler Foundation; and Avid Radiopharmaceuticals, which supplied the imaging agent used by researchers to detect tau in the brain. Ramanan and Fillit have reported no relevant financial relationships.
This article first appeared on Medscape.com.
Investigator Vijay Ramanan, MD, PhD, behavioral neurology fellow, Mayo Clinic, Rochester, Minnesota, noted that this is the first genome-wide study of tau positron-emission tomography (PET) and that it identifies variations in DNA profiles associated with tau load in the brain.
“These early results represent an important step to better understanding why some individuals have a greater susceptibility to tau accumulation while others are more resistant,” Dr. Ramanan told Medscape Medical News.
“As we learn more about that process, the longer-term hope would be to use that information to better predict who may become symptomatic from the disease and to develop targets for treatment based on those individualized profiles,” he added.
The findings were released March 9 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Genome-wide associations
The researchers assessed genetic profile and regional tau-PET data for 754 participants (mean age, 72.4 years; 54.6% men; 87% cognitively unimpaired) in the Mayo Clinic Study of Aging.
They found that individuals with novel genetic variants on chromosomes 1 and 5 had a higher amount of tau in their brains, compared with their counterparts who had more typical gene sequences in those regions.
The genetic variants were found in 2% to 3% of the group, and those individuals had about 10% higher tau levels than patients who did not have the variants.
Specifically, investigators identified genome-wide significant associations with higher tau for rs76752255 in protein phosphatase 2 regulatory subunit B (PPP2R2B), an enzyme of the PPP2R2B gene on chromosome 5, and for rs115862481 in an intergenic region on chromosome 1. Each minor allele had a stronger association in amyloid-positive than in amyloid-negative individuals.
In addition, three single-nucleotide polymorphisms (SNPs) within microtubule-associated protein tau (MAPT) genes displayed nominal associations to tau burden. These included rs3785883, which previously was found to be associated with higher levels of cerebrospinal fluid tau in an independent cohort.
However, no associations with tau burden were identified for the SNPs defining apolipoprotein E (APOE) e4 or for genotyped SNPs previously associated with Alzheimer’s disease in large case-control studies.
“The fact that these variants are new, coupled with the lack of strong signal for tau in APOE, reinforces the concept that Alzheimer’s disease is complex and that across patients, different sets of genes may be involved in entering into the Alzheimer’s disease pathway versus modifying its course or symptomatic expression,” Dr. Ramanan said.
“Lots of exciting work is ongoing to try to disentangle those issues, and this study is a valuable step on that path,” he added.
Dr. Ramanan said there is a great need for a better understanding of the factors that influence tau deposition, particularly since the burden and location of tau buildup in the brain are closely related to cognitive symptoms of Alzheimer’s disease.
He noted that the approach of “imaging genetics”—using brain scans that capture disease biomarkers and connecting those with data on the genome to improve knowledge about risk and treatment targeting—has been growing. However, only recently has it become possible to apply that framework to tau.
Dr, Ramanan emphasized that replication studies and functional characterization of these novel genetic findings are needed.
“Distant” clinical implications
Commenting on the study, Howard Fillit, MD, founding executive director and chief science officer of the Alzheimer’s Drug Discovery Foundation, said that there is currently “a fair amount of this kind of work going on” in assessing polygenetic risk in Alzheimer’s disease. This includes examining APOE as well as “a whole bunch of other genes” associated with the disease.
“Far and away, the APOE genetic association with Alzheimer’s disease risk is the most powerful one. In and of themselves, none of these other risk genes cause Alzheimer’s disease, they only contribute to risk,” Dr. Fillit noted.
“This study found some new genes that were associated with susceptibility to tau deposition, but at the end of the day, they are just associations. They don’t prove causality,” he added.
“It’s interesting, but really hard to know what to conclude from it; and the clinical implications, I think, are rather distant,” Dr. Fillit concluded.
The study was supported by the National Institutes of Health; the Gerald and Henrietta Rauenhorst Foundation; the Alexander Family Alzheimer’s Disease Research Professorship of Mayo Clinic; the Mayo Foundation for Medical Education and Research; a Liston Award; the Elsie and Marvin Dekelboum Family Foundation; the Schuler Foundation; and Avid Radiopharmaceuticals, which supplied the imaging agent used by researchers to detect tau in the brain. Ramanan and Fillit have reported no relevant financial relationships.
This article first appeared on Medscape.com.
Investigator Vijay Ramanan, MD, PhD, behavioral neurology fellow, Mayo Clinic, Rochester, Minnesota, noted that this is the first genome-wide study of tau positron-emission tomography (PET) and that it identifies variations in DNA profiles associated with tau load in the brain.
“These early results represent an important step to better understanding why some individuals have a greater susceptibility to tau accumulation while others are more resistant,” Dr. Ramanan told Medscape Medical News.
“As we learn more about that process, the longer-term hope would be to use that information to better predict who may become symptomatic from the disease and to develop targets for treatment based on those individualized profiles,” he added.
The findings were released March 9 ahead of the study’s scheduled presentation at the annual meeting of the American Academy of Neurology. The AAN canceled the meeting and released abstracts and access to presenters for press coverage.
Genome-wide associations
The researchers assessed genetic profile and regional tau-PET data for 754 participants (mean age, 72.4 years; 54.6% men; 87% cognitively unimpaired) in the Mayo Clinic Study of Aging.
They found that individuals with novel genetic variants on chromosomes 1 and 5 had a higher amount of tau in their brains, compared with their counterparts who had more typical gene sequences in those regions.
The genetic variants were found in 2% to 3% of the group, and those individuals had about 10% higher tau levels than patients who did not have the variants.
Specifically, investigators identified genome-wide significant associations with higher tau for rs76752255 in protein phosphatase 2 regulatory subunit B (PPP2R2B), an enzyme of the PPP2R2B gene on chromosome 5, and for rs115862481 in an intergenic region on chromosome 1. Each minor allele had a stronger association in amyloid-positive than in amyloid-negative individuals.
In addition, three single-nucleotide polymorphisms (SNPs) within microtubule-associated protein tau (MAPT) genes displayed nominal associations to tau burden. These included rs3785883, which previously was found to be associated with higher levels of cerebrospinal fluid tau in an independent cohort.
However, no associations with tau burden were identified for the SNPs defining apolipoprotein E (APOE) e4 or for genotyped SNPs previously associated with Alzheimer’s disease in large case-control studies.
“The fact that these variants are new, coupled with the lack of strong signal for tau in APOE, reinforces the concept that Alzheimer’s disease is complex and that across patients, different sets of genes may be involved in entering into the Alzheimer’s disease pathway versus modifying its course or symptomatic expression,” Dr. Ramanan said.
“Lots of exciting work is ongoing to try to disentangle those issues, and this study is a valuable step on that path,” he added.
Dr. Ramanan said there is a great need for a better understanding of the factors that influence tau deposition, particularly since the burden and location of tau buildup in the brain are closely related to cognitive symptoms of Alzheimer’s disease.
He noted that the approach of “imaging genetics”—using brain scans that capture disease biomarkers and connecting those with data on the genome to improve knowledge about risk and treatment targeting—has been growing. However, only recently has it become possible to apply that framework to tau.
Dr, Ramanan emphasized that replication studies and functional characterization of these novel genetic findings are needed.
“Distant” clinical implications
Commenting on the study, Howard Fillit, MD, founding executive director and chief science officer of the Alzheimer’s Drug Discovery Foundation, said that there is currently “a fair amount of this kind of work going on” in assessing polygenetic risk in Alzheimer’s disease. This includes examining APOE as well as “a whole bunch of other genes” associated with the disease.
“Far and away, the APOE genetic association with Alzheimer’s disease risk is the most powerful one. In and of themselves, none of these other risk genes cause Alzheimer’s disease, they only contribute to risk,” Dr. Fillit noted.
“This study found some new genes that were associated with susceptibility to tau deposition, but at the end of the day, they are just associations. They don’t prove causality,” he added.
“It’s interesting, but really hard to know what to conclude from it; and the clinical implications, I think, are rather distant,” Dr. Fillit concluded.
The study was supported by the National Institutes of Health; the Gerald and Henrietta Rauenhorst Foundation; the Alexander Family Alzheimer’s Disease Research Professorship of Mayo Clinic; the Mayo Foundation for Medical Education and Research; a Liston Award; the Elsie and Marvin Dekelboum Family Foundation; the Schuler Foundation; and Avid Radiopharmaceuticals, which supplied the imaging agent used by researchers to detect tau in the brain. Ramanan and Fillit have reported no relevant financial relationships.
This article first appeared on Medscape.com.