Factors Associated With COVID-19 Cases and Deaths in Long-Term Care Facilities: Findings from a Literature Review

Authors: Nancy Ochieng, Priya Chidambaram, Rachel Garfield, and Tricia Neuman
Published: Jan 14, 2021

Issue Brief

Executive Summary

The COVID-19 pandemic has disproportionately affected residents and staff in nursing homes and other long-term care facilities (LTCFs). While this group is in the top priority group for vaccine distribution in all states, some may remain at risk as the pandemic continues to spread across the country, particularly LTCF staff for whom vaccination rates have been low. In addition, the pandemic may have exposed vulnerabilities in LTCFs that can inform future efforts to address infectious disease outbreaks.

This brief summarizes the findings of 30 studies between April 2020 and January 2021 that examined potential factors associated with COVID-19 cases and/or deaths in LTCFs. Key takeaways include:

  • The prevalence of COVID-19 cases in the community is consistently associated with COVID-19 cases and/or deaths in long-term care facilities.
  • Staff infections appear to be a link between cases in the community and long-term care facilities, although it is unclear if the staff infections were the result of community spread or pre-existing cases in LTCFs.
  • Long-term care facilities that are for-profit or have higher shares of residents who are people of color (or are located in communities with a large share of people from communities of color) were more likely to have COVID-19 cases and deaths. Urban location and large bed size are also associated with cases and deaths, which may reflect other factors such as community spread or association between bed side and case count.
  • Among studies that examine the association between CMS overall quality ratings and infection control deficiencies in nursing facilities, most find no clear association with COVID-19 cases or deaths, but a small number of studies do.
  • Nursing homes with higher staffing levels, including those with higher CMS 5-star quality ratings for staffing are associated with fewer cases or deaths in the facility.

It should be noted that many of these studies were conducted in real time, as the pandemic was gaining force and shifting geographically; it is possible that results from studies conducted in the earlier months may not reflect changes that have occurred over the course of the year. Further, we did not identify research that examines the role of PPE shortages, staff shortages, or state or facility policy on cases or deaths in LTCFs. While a successful vaccination effort should mitigate the future risk of serious illness and deaths due to COVID-19, this analysis identifies factors that may make residents and staff of nursing homes and other LTCFs vulnerable if sufficient numbers are not vaccinated, or if they are exposed to other highly contagious and dangerous infections in the future.

Introduction

The COVID-19 pandemic has disproportionately affected residents and staff in nursing homes and other long-term care facilities (LTCFs), accounting for 6% of all cases and 38% of all COVID-19 deaths nationwide. In response, the Centers for Disease Control (CDC) recommended that LTCFs have the highest priority when it comes to vaccinations. Since the initial high-profile outbreak of the virus at the Life Care Center of Kirkland, Washington, many facilities have implemented measures to contain the spread of coronavirus in LTCFs, including universal testing, widespread use of personal protective equipment (PPE), and visitor restrictions. The federal government also responded to pandemic by refocusing early routine nursing home inspections on infection control and convening a panel of experts to provide evidence-based recommendations on how to address the pandemic in nursing homes (Coronavirus Commission for Safety and Quality in Nursing Homes). Additionally, federal legislation allocated some funds to help cover the expense of PPE and testing.

Despite these measures, deaths and infections among long-term care facility residents and staff have continued to increase throughout the pandemic, largely following the national trend, underscoring the need to better understand factors that are associated with increased COVID-19 cases and deaths in LTCFs. Early data also suggests that initial vaccine distribution has been slower than anticipated, and that staff vaccination rates are relatively low due to concerns about vaccine safety, which could lead to the continued spread of the virus in LTCFs.  According to a recent survey conducted by KFF, nearly three in ten (29%) people who work in health care settings said they would definitely or probably not get vaccinated. Additionally, 35% of Black adults (a group that has borne a disproportionate burden of the pandemic and makes up over a quarter of the long-term care work force) say they definitely or probably would not get vaccinated. This review of studies informs ongoing efforts to limit preventable infections and deaths in long-term care settings, and may help to identify characteristics of facilities most at risk that could be prioritized for vaccine distribution, staff education and oversight.

This issue brief summarizes the findings of 30 studies that have examined potential factors associated with COVID-19 cases and/or deaths in LTCFs. We group those factors into categories of community spread, including staff-to-patient transmission and patient transfers; facility quality and infection control; staffing levels; and other facility-level characteristics, such as ownership, location, payer mix, and the racial/ethnic composition of residents. An overview of the methods used in identifying studies included is provided in the Methods box at the end of the brief.

Key Findings

Community Spread

The prevalence of COVID-19 in the community is consistently associated with COVID-19 cases and/or deaths in long-term care facilities. In total, all nine studies that looked at community transmission found an association between community (typically county) case rates and likelihood or severity of outbreaks or deaths in LTCFs. All studies found that communities with high coronavirus case rates had more cases and deaths in its long-term care facilities than communities with low case rates. These studies used data from time periods ranging from early in the pandemic (end of May) to mid-September 2020, but most were using data from late Spring through Summer 2020. Only two used national or 50-state data1 ,2  while four studies used state-reported data for a subset of states3 ,4 ,5 ,6 , and three used other samples or a single state.7 ,8 ,9  Only one of these studies adjusted for the possible endogeneity between community cases and LTCF cases (that is, high cases or deaths in LTCFs contributing to high COVID-19 rates within the county), though it still found a significant relationship between community rates and cases and deaths in LTCFs.10 

Some studies identify staff infections as a likely link between community cases and cases in long-term care facilities. Three studies explicitly looked at the role of staff in LTCF outbreaks, and all found a relationship between community spread, staff infections, and resident infections. In a NY state report from summer 2020, researchers found that staff infections correlated with the timing of peak nursing home resident mortality across the state and were typically centralized in communities with high case rates.11  Another analysis using geolocation data from 50 million smartphones and data from 22 states found that overlapping staff networks between nursing homes were significantly associated with coronavirus infections.12  The third study, using data from one large academic LTCF, found that facilities with a high burden of disease were more likely to have staff members that lived in communities with high rates of COVID-19 infection.13  It is unclear from existing research whether these findings are generalizable nationwide or whether staff infections themselves were a result of community transmission or pre-existing cases within the facility.

The evidence is mixed on the effect of patient transfers on COVID-19 cases and deaths in long-term care facilities.  Following reports in the media about transfers from hospitals and other health care settings leading to new infections in LTCFs, three state-based analyses (from New York, Michigan, and Maryland) examined the potential role of patient transfers to other health care facilities in COVID-19 outbreaks in LTCFs. Neither the New York nor Michigan state report found a consistent relationship between hospital transfers and increased COVID-19 case load or deaths among nursing home residents, though both relied on descriptive analysis of timing and number of cases.14 ,15  In contrast, a third study from Maryland found that nursing home residents that were transferred to receive dialysis treatment were more likely to contract the virus than those who were not transferred.16  The generalizability of findings from the three state-based studies may not be generalizable nationwide. In addition, we did not identify research evaluating outcomes of residents that were transferred within long-term care facilities.

Quality and Infection Control

Among the twelve studies that analyzed whether lower quality ratings under the CMS 5-Star Quality Rating System were associated with COVID-19 cases or deaths, the evidence is mixed:  eight studies found that overall quality ratings were not associated with the likelihood of a COVID-19 cases and deaths while four states identified a link between quality ratings and cases or deaths. The CMS star-rating system is one of the most cited measures of nursing home quality and accounts for a nursing home’s performance in the following domains: health inspection ratings, quality measure ratings, and staffing ratings. Early in the pandemic, there was speculation that nursing home quality was associated with virus outbreaks. This theory gained additional traction when early analysis by CMS  found that nursing homes with a one-star quality star rating were more likely to have more COVID-19 cases than facilities with a five-star quality rating. Since that report, 12 studies have investigated star ratings and COVID-19 among skilled nursing facilities, using data from time periods ranging from early in the pandemic (end of May) to the summer (June-July).  Only one study used national or 50-state data, while five studies used state-reported data for a subset of states and six used single state data.

Among these 12 studies, eight studies, including 1 national study, 5 studies based on a subset of states, and 2 single-state studies, found that CMS overall quality ratings were not associated with the likelihood of having a reported COVID-19 case,17 ,18  the number of COVID-19 cases,19 ,20 ,21 ,22 ,23  or mortality rates 24 . Among the remaining four studies, which were all based on single-state data, all found some link between overall star rating and either likelihood of having COVID-19 cases or deaths25 ,26  or severity of outbreaks among facilities with cases.27 ,28  Additional studies have examined star ratings on staffing and COVID-19 and found significant associations between those ratings and cases or deaths, as summarized in the staffing section below.

Most of the limited number of studies that examine nursing home infection control and COVID-19 find no association between nursing home infection control deficiencies and COVID-19 cases and deaths. Recent analysis by the Government Accountability Office found that most nursing homes had infection control deficiencies even prior to the COVID-19 pandemic. During the pandemic, facilities, states, and the federal government have undertaken several measures to strengthen infection control practices in nursing homes, including through CMS’ National Training Program.

Four out of five studies that have evaluated whether infection control practices or deficiencies, separately from overall health deficiencies and/or CMS overall star rating, are associated with COVID-19 outcomes in nursing homes, found no association with COVID-19 burden. Among the four studies that found no association, one study used national data and found no relationship between the number of deficiencies related to infection control and COVID-19 outbreak,29  two used data from a subset of states and  found no association between prior infection violations and probability of having at least one COVID-19 case,30 ,31  and one implemented the same infection control procedures across all long-term care facility units in a single long-term care facility in Boston but still found that the prevalence of COVID-19 cases and deaths varied widely.32  In contrast, one of the five studies found that 91% of nursing homes that reported at least one COVID-19 case had a prior infection control violation compared to 81% of nursing homes without any reported cases.33   Other studies looked at broader measures of deficiencies not limited to infection control and found that nursing homes with higher health rates of deficiencies were more likely to report at least COVID-1934 ,35  but nursing homes that received a fine for deficiencies had lower case rates than those that did not.36 

Staffing Levels

Findings suggest that higher staffing levels may play a protective role in containing COVID-19 cases and deaths in nursing homes, particularly in containing outbreaks once they enter the facility, though some research finds a link between LPN hours and cases or deaths.  Prior to the pandemic, research suggested that majority of nursing homes did not have adequate staffing levels, raising questions as to whether lower staffing levels are linked to COVID-19 cases and deaths in LTCFs. Seven studies examined the relationship between staffing levels and COVID-19 outcomes in nursing homes, with some variation in conclusions:

  • Quality ratings on staffing: Four studies examined whether nursing homes’ star rating on nurse staffing were associated with COVID-19 cases or deaths, including one that used national data, one that used data from a subset of states, and two that used data from a single state. Three of the four studies found that nursing homes with high quality ratings on nurse staffing were less likely to have more than 30 COVID-19 cases or deaths (controlling for bed size and other factors),37  had fewer cases and deaths per bed,38  and lower probability of having a resident with COVID-19.39  However, the remaining study, based on national data, did not find a statistically significant association between lower staffing ratings and COVID-19 cases.
  • Nursing and aide hours: Five studies examined whether staffing levels, separate from staffing quality ratings, are associated with COVID-19 cases and/or deaths, including two national studies and three state- based analyses. Three studies found an association between higher staffing and fewer cases, deaths, and/or lower likelihood of experiencing an outbreak. Specifically, the first study, based on national data, found that while nursing homes with a higher number of registered nurse (RN) hours per resident per day were more likely to experience at least one COVID-19 case, higher nurse aide hours and total nursing hours were associated with fewer deaths and lower likelihood of an outbreak among facilities with at least one COVID-19 case.40  The second study, also based on national data, found that higher total staffing was associated with no COVID-19 cases.41  The third study based on California data, found that early in the pandemic, nursing homes with lower total nurse staffing (RN, LVN, and CNA) had higher case rates, but as the pandemic progressed to August, nursing homes with higher RN staffing had lower case rates.42  Of note, these three studies included both staff and resident cases in their analyses, with two studies finding that county-level rates of COVID-19 were associated with COVID-19 transmission in nursing homes.43 ,44 
    • The remaining two studies, based on single-state data of cases among residents only, found either an inverse relationship between staffing and cases, where low RN hours per resident were associated with higher odds of a nursing home having COVID-19 cases,45  or found no association between RN staffing and likelihood of having one or more COVID-19 cases or deaths but rather, among facilities with at least one case or death, an increase in RN staffing was associated with fewer cases and deaths.46 
    • Additionally, among the five studies, two national studies examined the role of licensed practical nurses (LPNs) and found a positive association between LPN hours and COVID-19 cases and/or deaths. The first study found that low LPN hours were associated with fewer deaths but not the probability of an outbreak,47  and the second study found that higher LPN staffing rates were associated with more COVID-19 cases, a difference that could be partially attributed to the fact that LPNs, unlike RNs, tend to interact with more residents while completing tasks such as wound care or dressing changes.48 

Additional research has examined factors associated with staffing shortages during the pandemic and found that shortages are associated with factors that are also associated with COVID-19 cases and deaths. Data from the federal government shows that approximately one in five nursing homes have reported a staffing shortage at some point in time during the pandemic. However, we were unable to identify analyses that examined whether and to what extent these shortages contributed to outbreaks or severity of outbreaks in LTCFs.49  Not surprisingly, staffing shortages as an outcome measure in research are linked to the same factors associated with cases and deaths, such as community spread, since shortages are logically related to COVID-19 outbreaks among staff.

Five studies evaluated the most likely factors associated with staffing shortages in nursing homes during the pandemic, finding that higher COVID-19 cases in the surrounding community or within the facility,50 ,51 ,52  lower CMS star rating,53 ,54 ,55  government ownership,56 ,57  and a higher share of residents covered by Medicaid58 ,59  were associated with staff shortages. One study found that high concentrations of Black residents and facility location in a less urban county were associated with reported staffing shortages.60  One study identified several factors associated with a lower likelihood of reporting a staffing shortage, including having at least a one week supply of PPE, higher occupancy rates, or a higher share of Medicare residents.61  Again, it is unclear from existing research if these staffing shortages in turn contribute to higher COVID-19 cases or deaths.

Other Facility-Level Characteristics

Long-term care facilities that are for-profit, have a higher share of residents who are people of color, located in urban areas, and have more beds are more likely to have COVID-19 cases and deaths. Seventeen studies analyzed a range of facility-level characteristics associated with COVID-19 cases and/or deaths in long-term care facilities, including characteristics such as location, facility size (as measured by number of beds), share of residents with Medicaid as their primary payer, racial composition of residents, ownership, and labor union presence.62 ,63 ,64 ,65 ,66 ,67 ,68 ,69 ,70 ,71 ,72 ,73 ,74 ,75 ,76 ,77 ,78  These studies used data from various time periods, including eleven studies with data collected early in the pandemic (end of May), four studies as of June and July, and one study as of October. One study collected data from two time periods: May and August 2020. Among these seventeen studies, only four studies used national or 50-state data, while seven studies used state-reported data for a subset of states and six used single state data.

  • For-profit nursing facilities are at higher risk for COVID-19 cases and deaths, while nursing facilities with labor unions are less likely to have COVID-19 deaths: Six studies evaluated whether for-profit versus non-profit status was associated with COVID-19 outcomes.79 ,80 ,81 ,82 ,83 ,84  Three studies collected data as of early in the pandemic (end of May), two studies had study collection periods during the summer, and one study used data from both May and August. Four studies obtained data from a subset of states whereas two studies obtained data from single states. All six studies found that for-profit nursing homes were associated with higher COVID-19 case and/or death counts..One study that focused more specifically on private-equity owned nursing homes, using national data from early summer, found that private equity-owned nursing homes did not have higher COVID-19 case rates or death rates than non-profit or for-profit nursing homes, though they did have higher case rates than government-owned facilities.85  Two examined chain status, with mixed results: a Connecticut study found that nursing facilities that were part of a chain were more likely to have at least one COVID-19 case, while the second study, based on a subset of states, found that non-chain status was associated with the likelihood of having at least one COVID-19 case.86 , 87 .One study using data as of May found that nursing facilities in New York with labor unions were associated with lower COVID-19 death rates compared to facilities without these unions.88 
  • Long-term care facilities with higher shares of residents who are people of color are more likely to experience COVID-19 cases and/or deaths: Ten studies examined racial/ethnic composition of LTCF residents as potential factors associated with COVID-19 cases and/or deaths. Among these 10 studies, nine studies found that LTCFs with higher shares of people of color, especially Black or Hispanic residents, were more likely to have a greater likelihood of having at least one COVID-19 case89 , 90 ,91  or at least one COVID-19 death,92  a higher number of new COVID-19 cases and deaths,93  a higher number of cases,94 ,95  higher case rates,96  and higher case and death counts.97  The remaining study found that the concentration of residents who are people of color was not associated with the likelihood of having one or more COVID-19 case or deaths in the facility; however, among facilities with at least one case, nursing homes with a greater share of people of color had higher counts of COVID-19 cases.98  One study examined whether the concentration of African-Americans at the county-level was associated with cases in nursing homes.99  This study found that county-level population of African-Americans was associated with COVID-19 cases in nursing homes.
  • Urban location may be associated with cases in long-term care facilities: Two studies examined the role of location using data collected in May from a subset of states.100 ,101  Both studies found that nursing facilities located in urban locations were associated with an increased probability of having at least one COVID-19 case or a higher likelihood of more COVID-19 cases.   As the pandemic has spread across the country and affected more rural areas, it is possible that distinctions in location are no longer associated with LTCF outbreaks.
  • Facilities with more beds and higher occupancy rates are more likely to have COVID-19 cases and/or deaths: Nine studies evaluated the relationship between COVID-19 burden and the size of long-term care facilities, as measured by the number of beds, among a subset of states or from single states using data ranging from early in the pandemic (end of May) to August.102 ,103 ,104 ,105 ,106 ,107 ,108 ,109 ,110  These nine studies found that long-term care facilities with more beds were associated with increased probability of having at least one COVID-19 case 111 ,112  higher case counts,113  higher mortality rates,114  higher case and death counts, 115 ,116 ,117  and severity of outbreak.118  Two additional studies also found that LTCFs with higher occupancy rates were associated with increased likelihood of experiencing at least one COVID-19 case but not necessarily a higher count of cases,119  and a higher count of COVID-19 cases and deaths.120  The relationship between COVID-19 cases and facility size likely reflects the fact that larger facilities accept more residents and have more staff, potentially increasing the risk of community spread through movements of residents and staff to and from the facility.
  • There is some association between the share of residents covered by Medicaid as a primary payer and COVID-19 burden: Five studies evaluated whether nursing homes with a greater share of residents for whom Medicaid was primary payer had more COVID-19 cases and deaths, with mixed results.121 ,122 ,123 ,124 ,125  Two studies, one multi-state study using data from Spring 2020 and one based on Spring 2020 data from Connecticut, found that facilities with a relatively high share of residents covered by Medicaid did not have higher likelihood of one or more cases or deaths; however, the Connecticut-based study found that among facilities with at least one case, nursing homes with relatively high share of Medicaid-insured residents had more COVID-19 cases (controlling for other facility characteristics including size and resident race/ethnicity). Two multi-state studies found that facilities with a higher share of residents on Medicaid were associated with more COVID-19 cases or deaths. Additionally, one study found that facilities that reported at least one COVID-19 case had a greater share of Medicaid-insured residents than facilities that did not report any cases.
  • Few studies have examined the association between COVID-19 cases and deaths and facility-level characteristics in Assisted Living Facilities separately from nursing facilities: One study, using data from a subset of seven states, examined the association between assisted living characteristics and COVID-19 cases and deaths in the facility. Consistent with other studies on nursing homes, this study found that assisted living facilities with a high share of residents who are people of color have high case rates. Additionally, this study found that larger ALFs are more likely to experience at least one COVID-19 case. We were unable to find other studies that analyzed the relationship between assisted living characteristics and COVID-19 outcomes.

Discussion

The coronavirus pandemic has had an outsized impact on older adults generally and long-term care facility residents and staff more specifically, prompting a wave of studies that have looked at factors associated with COVID-19 cases and deaths.  Our analysis of the studies published 9 months into the pandemic finds that community transmission was found to be consistently associated with cases and deaths.  In addition, the data indicate that certain facility characteristics are associated with COVID-19 cases and deaths, including having a relatively large share of Black or Hispanic residents, for-profit status, a relatively large number of beds, and being located in urban areas. There also appears to be evidence that nursing homes with higher staffing levels, including higher CMS 5-star quality ratings for staffing, have a lower likelihood of cases or deaths.

However, there are other areas where the evidence so far is less clear.  Studies have mixed results on the relationship between overall nursing home quality ratings and COVID-19 cases and deaths. Results are also less clear on important questions of transmission patterns, such as whether patient transfers contribute to the spread of the virus. In addition, we could find no studies that look at whether shortages of PPE, testing and staff are associated with cases or deaths, nor whether certain practices (e.g., setting up separate COVID-19 facilities) or policies (e.g., relaxing or restricting visitation) directly affected the spread of infection across LTCFs.  Further, we were able to identify only one pertaining to assisted living, group homes, and other residential facilities, separate from nursing facility studies, which are home to nearly one million people who are unable to live independently.

While the pandemic took hold in March of 2020, nursing facilities were not required to begin reporting coronavirus cases and deaths to the federal government until May 8, 2020, which means that many of the studies were limited to state-reported data, if available, or missing the early months when nursing homes in some states were hit hard by infections. Even with the federal reporting requirements imposed by CMS, there are gaps in data that would help further pinpoint which residents, staff and facilities were most at risk.  For example, current requirements do not include cases or deaths from long-term care facilities that are not certified by Medicare or Medicaid, which excludes virtually all assisted living and residential care facilities. Further, nursing facilities are not required to report the race or ethnicity, age, or comorbidities of the staff and residents who have become seriously ill or died due to COVID-19.

As the new Administration takes the helm in managing the pandemic and putting in place safeguards to protect residents and staff from future outbreaks, this analysis informs efforts that may be used to help strengthen safety and quality protections in long-term care settings and inform efforts to maximize resident and staff vaccinations.

Methods

This literature review summarizes findings from 30 studies published through January 2021 that examine factors associated with COVID-19 cases and deaths in long-term care facilities. It includes analyses and reports published by government, research, and policy organizations using data from April 2020 or later. We also included certain studies done by media organizations (The New York Times and Kaiser Health News) that include original data analysis on this topic. Most studies included in this literature review are journal articles from peer-reviewed journals, but we also included studies published by independent policy and research groups as well as government reports. We excluded reports from advocacy or industry groups.

The key outcome of interest was COVID-19 cases and deaths. We were unable to find studies that examined the effects of PPE, testing, and staffing shortages on the outcomes of interest, but incorporated the studies that examined factors associated with staffing shortages because they were factors also associated with COVID-19 cases and deaths. We included studies that looked at LTCFs specifically but did not limit our inclusion criteria to only nursing homes or other type; that said, the vast majority of studies we identified were for nursing facility settings.

To collect relevant studies, we conducted keyword searches of PubMed and Google Scholar, as well as websites of long-term care policy-specific journals. We also identified studies using a snowball technique based on bibliographies of previously pulled studies. While we tried to be as comprehensive as possible in our inclusion of studies and findings that meet our criteria, it is possible that we missed some relevant studies or findings. For each study, we read the final publication and summarized the data sources, methods, and findings. We broke findings out into key factors of interest – community spread, quality/infection control, staffing levels, and other facility characteristics. Studies may be cited in multiple of these categories or in multiple places within a category. The Appendix Table at the end of the brief provides a list of citations for each of the included studies, grouped by the four categories of findings.

 

Appendix

Appendix Table 1: Factors Associated With COVID-19 Cases and Deaths in Long-Term Care Facilities: A Literature Review
StudyMeasure
Community SpreadQuality and Infection ControlStaffing Levels and Staffing ShortagesOther Facility-Level Characteristics
Adam Dean, Atheendar Venkataramani, and Simeon Kimmel, “Mortality Rates From COVID-19 Are Lower In Unionized Nursing Homes,” Health Affairs, 39 no.11 (September 2020): https://doi.org/10.1377/hlthaff.2020.01011XX
Benjamin F. Bigelow, Olive Tang, Gregory R. Toci, et al., “Transmission of SARS-CoV-2 Involving Residents Receiving Dialysis in a Nursing Home — Maryland, April 2020”, MMWR Morb Mortal Wkly Rep 2020;69:1089–1094, http://dx.doi.org/10.15585/mmwr.mm6932e4X
Brian E. McGarry, David C. Grabowski, and Michael L. Barnett, “Severe Staffing And Personal Protective Equipment Shortages Faced By Nursing Homes During The COVID-19 Pandemic” Health Affairs 39, 10 (August 2020), https://doi.org/10.1377/hlthaff.2020.01269X
Bruce Spurlock, Alex Stack, Charlene Harrington, COVID-19 in California’s Nursing Homes: Factors Associated with Cases and Deaths (California Health Care Foundation, December 2020), https://www.chcf.org/publication/covid-19-californias-nursing-homes-factors-cases-deaths/#recommendationsXX
Center for Health and Research Transformation, Keeping nursing home residents safe and advancing health in light of COVID-19 (Center for Health and Research Transformation, (September 2020), https://chrt.org/wp-content/uploads/2020/09/KeepingNursingHomeResidentsSafeSummaryReport9-8-2020.pdfX
Charlene Harrington, Leslie Ross, Susan Chapman, et al., “Nurse Staffing and Coronavirus Infections in California Nursing Homes.” Policy, Politics, & Nursing Practice 21, no. 3 (August 2020): 174–86, https://doi.org/10.1177%2F1527154420938707XXX
Craig S. Richmond, Arick P. Sabin, Dean A. Jobe, et al., “SARS-CoV-2 sequencing reveals rapid transmission from college student clusters resulting in morbidity and deaths in vulnerable populations” MedRxiv (October 2020), https://doi.org/10.1101/2020.10.12.20210294X
David P. Bui, Isaac See, Elisabeth M. Hesse et al., “Association Between CMS Quality Ratings and COVID-19 Outbreaks in Nursing Homes – West Virginia, March 17-June 11, 2020,” MMWR Morb Mortal Wkly Rep, 69 no. 37 (September 2020): 1300–1304. https://doi.org/10.15585/mmwr.mm6937a5XX
Diane Gibson and Jessica Greene, “State Actions and Shortages of PPE and Staff in U.S Nursing Homes” Journal of the American Geriatrics Society (October 2020), https://doi.org/10.1111/jgs.16883X
Elizabeth M. White, Cyrus M. Kosar, Richard A.Feifer, et al., “Variation in SARS‐CoV‐2 Prevalence in U.S. Skilled Nursing Facilities,” Journal of the American Geriatrics Society 68, no 10 (October 2020): 2167-2173, https://doi.org/10.1111/jgs.16752XXX
Hannah R. Abrams, Lacey Loomer, Ashvin Gandhi, et al., “Characteristics of U.S. Nursing Homes with COVID‐19 Cases,” Journal of the American Geriatrics Society 68, no 8 (August 2020): 1653-1656, https://doi.org/10.1111/jgs.16661XX
Helena Temkin-Greener, Wenhan Guo, Yunjiao Mao, et al., “COVID‐19 Pandemic in Assisted Living Communities: Results from Seven States,” Journal of the American Geriatrics Society 68, no 12 (December 2020): 2727-2734, https://doi.org/10.1111/jgs.16850XX
Huiwen Xu, Orna Intrator, and John R. Bowblis, “Shortages of Staff in Nursing Homes During the COVID-19 Pandemic: What are the Driving Factors?” Journal of the American Medical Directors 21, 10 (October 2020): 1371-1377, https://doi.org/10.1016/j.jamda.2020.08.002X
Jordan Rau and Anna Almendrala, “COVID-Plagued California Nursing Homes Often Had Problems in Past,” Kaiser Health News (May 2020), https://kffhealthnews.org/news/covid-plagued-california-nursing-homes-often-had-problems-in-past/X
Jose F. Figueroa, Rishi K. Wadhera, Irene Papanicolas, et al., “Association of Nursing Home Ratings on Health Inspections, Quality of Care, and Nurse Staffing With COVID-19 Cases,” JAMA 324, no 11 (August 2020): 1103-1105, doi:10.1001/jama.2020.14709XX
M Keith Chen, Judith A. Chevalier, and Elisa F. Long, “Nursing Home Staff Networks and COVID-19”, National Bureau of Economic Research Working Paper Series No. 27608 (July 2020), https://www.nber.org/papers/w27608XXX
Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane, et al., “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946, https://doi.org/10.1016/j.scitotenv.2020.141946X
Mark Aaron Unruh, Hyunkyung Yun, Yongkang Zhang, et al., “ Nursing Home Characteristics Associated With COVID-19 Deaths in Connecticut, New Jersey, and New York,” Journal of the American Medical Directors Association, 21 no. 7 (July 2020): 1001–1003, https://doi.org/10.1016/j.jamda.2020.06.019X
Mengying He, Yumeng Li, and Fang Fang, “Is There a Link between Nursing Home Reported Quality and COVID-19 Cases? Evidence from California Skilled Nursing Facilities,” Journal of the American Medical Directors Association 21, no. 7 (July 2020): 905–908, https://doi.org/10.1016/j.jamda.2020.06.016XX
New York State Department of Health, Factors Associated with Nursing Home Infections and Fatalities in New York State During the COVID-19 Global Health Crisis ( New York, NY: New York State Department of Health, July 2020), https://www.health.ny.gov/press/releases/2020/docs/nhfactorsreport.pdfXX
Patricia Rowan, Reena Gupta, Rebecca Lester, et al., A Study of the COVID-19 Outbreak and Response in Connecticut Long-Term Care Facilities ( Princeton, NJ: Mathematica, Inc., September 2020), https://www.mathematica.org/our-publications-and-findings/publications/fr-a-study-of-the-covid-19-outbreak-and-response-in-connecticut-long-term-care-facilitiesX
Paul Chatterjee, Sheila Kelly, Mingyu Qi, et al., “Characteristics and Quality of US Nursing Homes Reporting Cases of Coronavirus Disease 2019 (COVID-19),” JAMA Network Open 3, no 7 (July 2020): e2016930, doi:10.1001/jamanetworkopen.2020.16930XXX
Priya Chidambaram, Rising Cases in Long-term Care Facilities Are Cause for Concern (Washington, DC: Kaiser Family Foundation, July 2020), https://www.kff.org/coronavirus-covid-19/issue-brief/rising-cases-in-long-term-care-facilities-are-cause-for-concern/X
Priya Chidambaram, Tricia Neuman, and Rachel Garfield, Racial and Ethnic Disparities in COVID-19 Cases and Deaths in Nursing Homes (Washington, DC: Kaiser Family Foundation, October 2020), https://www.kff.org/coronavirus-covid-19/issue-brief/racial-and-ethnic-disparities-in-covid-19-cases-and-deaths-in-nursing-homes/X
Rebecca Gorges and R. Tamara Konetzka, “Staffing Levels and COVID-19 Cases and Outbreaks in U.S Nursing Homes,” Journal of the American Geriatrics Society 68 no. 11 (August 2020): 2462-2466, https://doi.org/10.1111/jgs.16787XX
Robert Tyler Braun, Hyunkyung Yun, Lawrence P. Casalino et al., “Comparative Performance of Private Equity–Owned US Nursing Homes During the COVID-19 Pandemic,” JAMA Network Open 3, no 10 (October 2020): e2026702, doi:10.1001/jamanetworkopen.2020.26702XX
Sandra M. Shi, Innokentiy Bakaev, Helen Chen, et al., “Risk Factors, Presentation, and Course of Coronavirus Disease 2019 in a Large, Academic Long-Term Care Facility”, JAMDA, 21 (August 2020), https://doi.org/10.1016/j.jamda.2020.08.027XX
The New York Times, “The Striking Racial Divide in How Covid-19 Has Hit Nursing Homes”, The New York Times (September 2020), https://www.nytimes.com/article/coronavirus-nursing-homes-racial-disparity.html?action=click&module=Well&pgtype=Homepage§ion=US%20NewsX
Yue Li, Xi Cen, Xeuya Cai, et al., “Racial and Ethnic Disparities in COVID‐19 Infections and Deaths Across U.S. Nursing Homes,” Journal of the American Geriatrics Society, 68 no. 11 (September 2020): 2454-2461, https://doi.org/10.1111/jgs.16847X
Yue Li, Helena Temkin‐Greener, Gao Shan, et al., “COVID‐19 Infections and Deaths among Connecticut Nursing Home Residents: Facility Correlates,” Journal of the American Medical Directors Association , 68 no. 9 (September 2020): 1899-1906, https://doi.org/10.1111/jgs.16689XXX
NOTES: X denotes that the study had findings related to the specific measure.SOURCE: KFF analysis of 30 studies that have examined potential predictors of COVID-19 cases and/or deaths in long-term care facilities

Endnotes

  1. Rebecca Gorges, “Staffing Levels and COVID-19 Cases and Outbreaks in U.S Nursing Homes,” Journal of the American Geriatrics Society 68 no. 11 (November 2020): 2462-2466, https://doi.org/10.1111/jgs.16787 ↩︎
  2. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  3. Helena Temkin-Greener, Wenhan Guo, Yunjiao Mao, Xueya Cai, and Yue Li, “COVID‐19 Pandemic in Assisted Living Communities: Results from Seven States,” Journal of the American Geriatrics Society 68, no. 12 (December 2020): 2727-2734, https://doi.org/10.1111/jgs.16850 ↩︎
  4. Elizabeth M. White, Cyrus M. Kosar, Richard A.Feifer et al., “Variation in SARS‐CoV‐2 Prevalence in U.S. Skilled Nursing Facilities,” Journal of the American Geriatrics Society 68, no. 10 (October 2020): 2167-2173, https://doi.org/10.1111/jgs.16752 ↩︎
  5. Priya Chidambaram, Rising Cases in Long-term Care Facilities Are Cause for Concern (Washington, DC: Kaiser Family Foundation, July 2020), https://modern.kff.org/coronavirus-covid-19/issue-brief/rising-cases-in-long-term-care-facilities-are-cause-for-concern/ ↩︎
  6. Paul Chatterjee, Sheila Kelly, Mingyu Qi, and Rachel Werner, “Characteristics and Quality of US Nursing Homes Reporting Cases of Coronavirus Disease 2019 (COVID-19),” JAMA Network Open 3, no. 7 (July 2020): e2016930, doi:10.1001/jamanetworkopen.2020.16930 ↩︎
  7. Patricia Rowan, Reena Gupta, Rebecca Lester et al., A Study of the COVID-19 Outbreak and Response in Connecticut Long-Term Care Facilities (Princeton, NJ: Mathematica, Inc., September 2020), https://www.mathematica.org/our-publications-and-findings/publications/fr-a-study-of-the-covid-19-outbreak-and-response-in-connecticut-long-term-care-facilities ↩︎
  8. Craig Richmond, Arick Sabin, “SARS-CoV-2 sequencing reveals rapid transmission from college student clusters resulting in morbidity and deaths in vulnerable populations” MedRxiv (October 2020), https://doi.org/10.1101/2020.10.12.20210294 ↩︎
  9. [9] David P. Bui, Isaac See, Elisabeth M. Hesse et al., “Association Between CMS Quality Ratings and COVID-19 Outbreaks in Nursing Homes – West Virginia, March 17-June 11, 2020,” MMWR. Morbidity and mortality weekly report, 69 no. 37 (September 2020): 1300–1304. https://doi.org/10.15585/mmwr.mm6937a5 ↩︎
  10. Patricia Rowan, Reena Gupta, Rebecca Lester et al., A Study of the COVID-19 Outbreak and Response in Connecticut Long-Term Care Facilities (Princeton, NJ: Mathematica, Inc., September 2020), https://www.mathematica.org/our-publications-and-findings/publications/fr-a-study-of-the-covid-19-outbreak-and-response-in-connecticut-long-term-care-facilities ↩︎
  11. New York State Department of Health, Factors Associated with Nursing Home Infections and Fatalities in New York State During the COVID-19 Global Health Crisis, (New York, NY: New York State Department of Health, July 2020), https://www.health.ny.gov/press/releases/2020/docs/nh_factors_report.pdf ↩︎
  12. M Keith Chen, Judith A. Chevalier, and Elisa F. Long, Nursing Home Staff Networks and COVID-19, (National Bureau of Economic Research, Working Paper Series no. 27608, July 2020), https://www.nber.org/papers/w27608 ↩︎
  13. Sandra M. Shi, Innokentiy Bakaev, Helen Chen, Thomas G. Travison, and Sarah D. Berry, “Risk Factors, Presentation, and Course of Coronavirus Disease 2019 in a Large, Academic Long-Term Care Facility”  JAMDA, 21 no.10 (August 2020), https://doi.org/10.1016/j.jamda.2020.08.027 ↩︎
  14. New York State Department of Health, Factors Associated with Nursing Home Infections and Fatalities in New York State During the COVID-19 Global Health Crisis (New York, NY: New York State Department of Health, July 2020), https://www.health.ny.gov/press/releases/2020/docs/nh_factors_report.pdf ↩︎
  15. Center for Health and Research Transformation, Keeping nursing home residents safe and advancing health in light of COVID-19 (Center for Health and Research Transformation, September 2020), https://chrt.org/wp-content/uploads/2020/09/KeepingNursingHomeResidentsSafe_SummaryReport_9-8-2020.pdf ↩︎
  16. Bigelow BF, Tang O, Toci GR, et al., “Transmission of SARS-CoV-2 Involving Residents Receiving Dialysis in a Nursing Home — Maryland, April 2020,” MMWR Morb Mortal Wkly 69 no. 32 (August 2020): 1089-1094, http://dx.doi.org/10.15585/mmwr.mm6932e4 ↩︎
  17. Hannah R. Abrams, Lacey Loomer, Ashvin Gandhi, and David Grabowski, “Characteristics of U.S. Nursing Homes with COVID‐19 Cases,” Journal of the American Geriatrics Society 68, no 8 (August 2020): 1653-1656, https://doi.org/10.1111/jgs.16661 ↩︎
  18. Paul Chatterjee, Sheila Kelly, Mingyu Qi, and Rachel Werner, “Characteristics and Quality of US Nursing Homes Reporting Cases of Coronavirus Disease 2019 (COVID-19),” JAMA Network Open 3, no. 7 (July 2020): e2016930, doi:10.1001/jamanetworkopen.2020.16930 ↩︎
  19. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  20. Jose F. Figueroa, Rishi K. Wadhera, Irene Papanicolas et al., “Association of Nursing Home Ratings on Health Inspections, Quality of Care, and Nurse Staffing With COVID-19 Cases,” JAMA 324, no. 11 (August 2020): 1103-1105, doi:10.1001/jama.2020.14709 ↩︎
  21. M Keith Chen, Judith A. Chevalier, and Elisa F. Long, Nursing Home Staff Networks and COVID-19, (National Bureau of Economic Research, Working Paper Series no. 27608, July 2020), https://www.nber.org/papers/w27608 ↩︎
  22. Elizabeth M. White, Cyrus M. Kosar, Richard A.Feifer et al., “Variation in SARS‐CoV‐2 Prevalence in U.S. Skilled Nursing Facilities,” Journal of the American Geriatrics Society 68, no. 10 (October 2020): 2167-2173, https://doi.org/10.1111/jgs.16752 ↩︎
  23. Patricia Rowan, Reena Gupta, Rebecca Lester et al., A Study of the COVID-19 Outbreak and Response in Connecticut Long-Term Care Facilities (Princeton, NJ: Mathematica, Inc., September 2020), https://www.mathematica.org/our-publications-and-findings/publications/fr-a-study-of-the-covid-19-outbreak-and-response-in-connecticut-long-term-care-facilities ↩︎
  24. New York State Department of Health, Factors Associated with Nursing Home Infections and Fatalities in New York State During the COVID-19 Global Health Crisis (New York, NY: New York State Department of Health, July 2020), https://www.health.ny.gov/press/releases/2020/docs/nh_factors_report.pdf ↩︎
  25. David P. Bui, Isaac See, Elisabeth M. Hesse et al., “Association Between CMS Quality Ratings and COVID-19 Outbreaks in Nursing Homes – West Virginia, March 17-June 11, 2020,” MMWR. Morbidity and mortality weekly report, 69 no. 37 (September 2020): 1300–1304. https://doi.org/10.15585/mmwr.mm6937a5 ↩︎
  26. Jordan Rau and Anna Almendrala, “COVID-Plagued California Nursing Homes Often Had Problems in Past,” Kaiser Health News (May 2020), https://kffhealthnews.org/news/covid-plagued-california-nursing-homes-often-had-problems-in-past/ ↩︎
  27. Yue Li, Helena Temkin‐Greener, Gao Shan, and Xueya Cai, “COVID‐19 Infections and Deaths among Connecticut Nursing Home Residents: Facility Correlates,” Journal of the American Medical Directors Association, 68 no. 9 (September 2020): 1899-1906, https://doi.org/10.1111/jgs.16689 ↩︎
  28. Mengying He, Yumeng Li, and Fang Fang, “Is There a Link between Nursing Home Reported Quality and COVID-19 Cases? Evidence from California Skilled Nursing Facilities,” Journal of the American Medical Directors Association 21, no. 7 (July 2020): 905–908, https://doi.org/10.1016/j.jamda.2020.06.016 ↩︎
  29. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  30. Hannah R. Abrams, Lacey Loomer, Ashvin Gandhi, and David Grabowski, “Characteristics of U.S. Nursing Homes with COVID‐19 Cases,” Journal of the American Geriatrics Society 68, no. 8 (August 2020): 1653-1656, https://doi.org/10.1111/jgs.16661 ↩︎
  31. Elizabeth M. White, Cyrus M. Kosar, Richard A.Feifer et al., “Variation in SARS‐CoV‐2 Prevalence in U.S. Skilled Nursing Facilities,” Journal of the American Geriatrics Society 68, no. 10 (October 2020): 2167-2173, https://doi.org/10.1111/jgs.16752 ↩︎
  32. Sandra M. Shi, Innokentiy Bakaev, Helen Chen, Thomas G. Travison, and Sarah D. Berry, “Risk Factors, Presentation, and Course of Coronavirus Disease 2019 in a Large, Academic Long-Term Care Facility”  JAMDA, 21 no.10 (August 2020), https://doi.org/10.1016/j.jamda.2020.08.027 ↩︎
  33. Jordan Rau and Anna Almendrala, “COVID-Plagued California Nursing Homes Often Had Problems in Past,” Kaiser Health News (May 2020), https://kffhealthnews.org/news/covid-plagued-california-nursing-homes-often-had-problems-in-past/ ↩︎
  34. Charlene Harrington, Leslie Ross, Susan Chapman, et al., “Nurse Staffing and Coronavirus Infections in California Nursing Homes.” Policy, Politics, & Nursing Practice 21, no. 3 (August 2020): 174–86, https://doi.org/10.1177%2F1527154420938707 ↩︎
  35. Paul Chatterjee, Sheila Kelly, Mingyu Qi, and Rachel Werner, “Characteristics and Quality of US Nursing Homes Reporting Cases of Coronavirus Disease 2019 (COVID-19),” JAMA Network Open 3, no. 7 (July 2020): e2016930, doi:10.1001/jamanetworkopen.2020.16930 ↩︎
  36. Bruce Spurlock, Alex Stack, Charlene Harrington, COVID-19 in California’s Nursing Homes: Factors Associated with Cases and Deaths (California Health Care Foundation, December 2020), https://www.chcf.org/publication/covid-19-californias-nursing-homes-factors-cases-deaths/#recommendations ↩︎
  37. Jose F. Figueroa, Rishi K. Wadhera, Irene Papanicolas et al., “Association of Nursing Home Ratings on Health Inspections, Quality of Care, and Nurse Staffing With COVID-19 Cases,” JAMA 324, no. 11 (August 2020): 1103-1105, doi:10.1001/jama.2020.14709 ↩︎
  38. Patricia Rowan, Reena Gupta, Rebecca Lester et al., A Study of the COVID-19 Outbreak and Response in Connecticut Long-Term Care Facilities (Princeton, NJ: Mathematica, Inc., September 2020), https://www.mathematica.org/our-publications-and-findings/publications/fr-a-study-of-the-covid-19-outbreak-and-response-in-connecticut-long-term-care-facilities ↩︎
  39. Charlene Harrington, Leslie Ross, Susan Chapman, et al., “Nurse Staffing and Coronavirus Infections in California Nursing Homes.” Policy, Politics, & Nursing Practice 21, no. 3 (August 2020): 174–86, https://doi.org/10.1177%2F1527154420938707 ↩︎
  40. Rebecca Gorges, “Staffing Levels and COVID-19 Cases and Outbreaks in U.S Nursing Homes,” Journal of the American Geriatrics Society 68 no. 11 (November 2020): 2462-2466, https://doi.org/10.1111/jgs.16787 ↩︎
  41. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  42. Bruce Spurlock, Alex Stack, Charlene Harrington, COVID-19 in California’s Nursing Homes: Factors Associated with Cases and Deaths ( California Health Care Foundation, December 2020), https://www.chcf.org/publication/covid-19-californias-nursing-homes-factors-cases-deaths/#recommendations ↩︎
  43. Rebecca Gorges, “Staffing Levels and COVID-19 Cases and Outbreaks in U.S Nursing Homes,” Journal of the American Geriatrics Society 68 no. 11 (November 2020): 2462-2466, https://doi.org/10.1111/jgs.16787 ↩︎
  44. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  45. Charlene Harrington, Leslie Ross, Susan Chapman, et al., “Nurse Staffing and Coronavirus Infections in California Nursing Homes.” Policy, Politics, & Nursing Practice 21, no. 3 (August 2020): 174–86, https://doi.org/10.1177%2F1527154420938707 ↩︎
  46. Yue Li, Helena Temkin‐Greener, Gao Shan, and Xueya Cai, “COVID‐19 Infections and Deaths among Connecticut Nursing Home Residents: Facility Correlates,” Journal of the American Medical Directors Association, 68 no. 9 (September 2020): 1899-1906, https://doi.org/10.1111/jgs.16689 ↩︎
  47. Rebecca Gorges, “Staffing Levels and COVID-19 Cases and Outbreaks in U.S Nursing Homes,” Journal of the American Geriatrics Society 68 no. 11 (November 2020): 2462-2466, https://doi.org/10.1111/jgs.16787 ↩︎
  48. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  49. Priya Chidambaram, Rising Cases in Long-term Care Facilities Are Cause for Concern (Washington, DC: Kaiser Family Foundation, July 2020), https://modern.kff.org/coronavirus-covid-19/issue-brief/rising-cases-in-long-term-care-facilities-are-cause-for-concern/ ↩︎
  50. Brian E. McGarry, David C. Grabowski, and Michael L. Barnett, “Severe Staffing And Personal Protective Equipment Shortages Faced By Nursing Homes During The COVID-19 Pandemic” Health Affairs 39, no. 10 (August 2020), https://doi.org/10.1377/hlthaff.2020.01269 ↩︎
  51. Huiwen Xu, Orna Intrator, John R. Bowblis “Shortages of Staff in Nursing Homes During the COVID-19 Pandemic: What are the Driving Factors?” Journal of the American Medical Directors 21, no. 10 (October 2020): 1371-1377, https://doi.org/10.1016/j.jamda.2020.08.002 ↩︎
  52. Diane Gibson and Jessica Greene, “State Actions and Shortages of PPE and Staff in U.S Nursing Homes” Journal of the American Geriatrics Society 68, no. 12 (October 2020): 2721: 2726, https://doi.org/10.1111/jgs.16883 ↩︎
  53. Diane Gibson and Jessica Greene, “State Actions and Shortages of PPE and Staff in U.S Nursing Homes” Journal of the American Geriatrics Society 68, no. 12 (October 2020): 2721: 2726, https://doi.org/10.1111/jgs.16883 ↩︎
  54. Brian E. McGarry, David C. Grabowski, and Michael L. Barnett, “Severe Staffing And Personal Protective Equipment Shortages Faced By Nursing Homes During The COVID-19 Pandemic” Health Affairs 39, no. 10 (August 2020), https://doi.org/10.1377/hlthaff.2020.01269 ↩︎
  55. Huiwen Xu, Orna Intrator, John R. Bowblis “Shortages of Staff in Nursing Homes During the COVID-19 Pandemic: What are the Driving Factors?” Journal of the American Medical Directors 21, no. 10 (October 2020): 1371-1377, https://doi.org/10.1016/j.jamda.2020.08.002 ↩︎
  56. Brian E. McGarry, David C. Grabowski, and Michael L. Barnett, “Severe Staffing And Personal Protective Equipment Shortages Faced By Nursing Homes During The COVID-19 Pandemic” Health Affairs 39, no. 10 (August 2020), https://doi.org/10.1377/hlthaff.2020.01269 ↩︎
  57. Robert Tyler Braun, Hyunkyung Yun, Lawrence P. Casalino et al., “Comparative Performance of Private Equity–Owned US Nursing Homes During the COVID-19 Pandemic,” JAMA Network Open 3, no 10 (October 2020): e2026702, doi:10.1001/jamanetworkopen.2020.26702 ↩︎
  58. Diane Gibson and Jessica Greene, “State Actions and Shortages of PPE and Staff in U.S Nursing Homes” Journal of the American Geriatrics Society 68, no. 12 (October 2020): 2721: 2726, https://doi.org/10.1111/jgs.16883 ↩︎
  59. Brian E. McGarry, David C. Grabowski, and Michael L. Barnett, “Severe Staffing And Personal Protective Equipment Shortages Faced By Nursing Homes During The COVID-19 Pandemic” Health Affairs 39, no. 10 (August 2020), https://doi.org/10.1377/hlthaff.2020.01269 ↩︎
  60. Diane Gibson and Jessica Greene, “State Actions and Shortages of PPE and Staff in U.S Nursing Homes” Journal of the American Geriatrics Society 68, no. 12 (October 2020): 2721: 2726, https://doi.org/10.1111/jgs.16883 ↩︎
  61. Huiwen Xu, Orna Intrator, John R. Bowblis “Shortages of Staff in Nursing Homes During the COVID-19 Pandemic: What are the Driving Factors?” Journal of the American Medical Directors 21, no. 10 (October 2020): 1371-1377,  https://doi.org/10.1016/j.jamda.2020.08.002 ↩︎
  62. Hannah R. Abrams, Lacey Loomer, Ashvin Gandhi, and David Grabowski, “Characteristics of U.S. Nursing Homes with COVID‐19 Cases,” Journal of the American Geriatrics Society 68, no. 8 (August 2020): 1653-1656, https://doi.org/10.1111/jgs.16661 ↩︎
  63. Paul Chatterjee, Sheila Kelly, Mingyu Qi, and Rachel Werner, “Characteristics and Quality of US Nursing Homes Reporting Cases of Coronavirus Disease 2019 (COVID-19),” JAMA Network Open 3, no. 7 (July 2020): e2016930, doi:10.1001/jamanetworkopen.2020.16930 ↩︎
  64. Helena Temkin-Greener, Wenhan Guo, Yunjiao Mao, Xueya Cai, and Yue Li, “COVID‐19 Pandemic in Assisted Living Communities: Results from Seven States,” Journal of the American Geriatrics Society 68, no. 12 (December 2020): 2727-2734, https://doi.org/10.1111/jgs.16850   ↩︎
  65. Robert Tyler Braun, Hyunkyung Yun, Lawrence P. Casalino et al., “Comparative Performance of Private Equity–Owned US Nursing Homes During the COVID-19 Pandemic,” JAMA Network Open 3, no. 10 (October 2020): e2026702, doi:10.1001/jamanetworkopen.2020.26702 ↩︎
  66. Mengying He, Yumeng Li, and Fang Fang, “Is There a Link between Nursing Home Reported Quality and COVID-19 Cases? Evidence from California Skilled Nursing Facilities,” Journal of the American Medical Directors Association 21, no. 7 (July 2020): 905–908, https://doi.org/10.1016/j.jamda.2020.06.016 ↩︎
  67. Elizabeth M. White, Cyrus M. Kosar, Richard A.Feifer et al.,, “Variation in SARS‐CoV‐2 Prevalence in U.S. Skilled Nursing Facilities,” Journal of the American Geriatrics Society 68, no. 10 (October 2020): 2167-2173, https://doi.org/10.1111/jgs.16752 ↩︎
  68. Mark Aaron Unruh, Hyunkyung Yun, Yongkang Zhang, et al., “ Nursing Home Characteristics Associated With COVID-19 Deaths in Connecticut, New Jersey, and New York,” Journal of the American Medical Directors Association, 21 no. 7 (July 2020): 1001–1003, https://doi.org/10.1016/j.jamda.2020.06.019 ↩︎
  69. Adam Dean, Atheendar Venkataramani, and Simeon Kimmel, “Mortality Rates From COVID-19 Are Lower In Unionized Nursing Homes,” Health Affairs, 39 no.11 (September 2020): https://doi.org/10.1377/hlthaff.2020.01011 ↩︎
  70. Charlene Harrington, Leslie Ross, Susan Chapman, et al., “Nurse Staffing and Coronavirus Infections in California Nursing Homes.” Policy, Politics, & Nursing Practice 21, no. 3 (August 2020): 174–86, https://doi.org/10.1177%2F1527154420938707 ↩︎
  71. Yue Li, Helena Temkin‐Greener, Gao Shan, and Xueya Cai, “COVID‐19 Infections and Deaths among Connecticut Nursing Home Residents: Facility Correlates,” Journal of the American Medical Directors Association, 68 no. 9 (September 2020): 1899-1906, https://doi.org/10.1111/jgs.16689 ↩︎
  72. M Keith Chen, Judith A. Chevalier, and Elisa F. Long, Nursing Home Staff Networks and COVID-19, (National Bureau of Economic Research, Working Paper Series no. 27608, July 2020), https://www.nber.org/papers/w27608 ↩︎
  73. Patricia Rowan, Reena Gupta, Rebecca Lester et al., A Study of the COVID-19 Outbreak and Response in Connecticut Long-Term Care Facilities (Princeton, NJ: Mathematica, Inc., September 2020), https://www.mathematica.org/our-publications-and-findings/publications/fr-a-study-of-the-covid-19-outbreak-and-response-in-connecticut-long-term-care-facilities ↩︎
  74. Bruce Spurlock, Alex Stack, Charlene Harrington, COVID-19 in California’s Nursing Homes: Factors Associated with Cases and Deaths ( California Health Care Foundation, December 2020), https://www.chcf.org/publication/covid-19-californias-nursing-homes-factors-cases-deaths/#recommendations ↩︎
  75. Margaret M. Sugg, Trent J. Spaulding, Sandi J. Lane et al, “Mapping community-level determinants of COVID-19 transmission in nursing homes: A multi-scale approach,” Science of the Total Environment 752, no. 15 (January 2021):141946,  https://doi.org/10.1016/j.scitotenv.2020.141946 ↩︎
  76. Priya Chidambaram, Tricia Neuman, and Rachel Garfield, Racial and Ethnic Disparities in COVID-19 Cases and Deaths in Nursing Homes (Washington, DC: Kaiser Family Foundation, October 2020), https://modern.kff.org/coronavirus-covid-19/issue-brief/racial-and-ethnic-disparities-in-covid-19-cases-and-deaths-in-nursing-homes/ ↩︎
  77. The New York Times, “The Striking Racial Divide in How Covid-19 Has Hit Nursing Homes”, The New York Times (September 2020), https://www.nytimes.com/article/coronavirus-nursing-homes-racial-disparity.html?action=click&module=Well&pgtype=Homepage&section=US%20News ↩︎
  78. Yue Li, Xi Cen, Xueya Cai, and Helena Temkin-Greener, “Racial and Ethnic Disparities in COVID‐19 Infections and Deaths Across U.S. Nursing Homes,” Journal of the American Geriatrics Society 68, no. 11 (November 2020): 2454-2461, https://doi.org/10.1111/jgs.16847 ↩︎
  79. Paul Chatterjee, Sheila Kelly, Mingyu Qi, and Rachel Werner, “Characteristics and Quality of US Nursing Homes Reporting Cases of Coronavirus Disease 2019 (COVID-19),” JAMA Network Open 3, no. 7 (July 2020): e2016930, doi:10.1001/jamanetworkopen.2020.16930 ↩︎
  80. Mengying He, Yumeng Li, and Fang Fang, “Is There a Link between Nursing Home Reported Quality and COVID-19 Cases? Evidence from California Skilled Nursing Facilities,” Journal of the American Medical Directors Association 21, no. 7 (July 2020): 905–908, https://doi.org/10.1016/j.jamda.2020.06.016 ↩︎
  81. Mark Aaron Unruh, Hyunkyung Yun, Yongkang Zhang, et al., “ Nursing Home Characteristics Associated With COVID-19 Deaths in Connecticut, New Jersey, and New York,” Journal of the American Medical Directors Association, 21 no. 7 (July 2020): 1001–1003, https://doi.org/10.1016/j.jamda.2020.06.019 ↩︎
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Patterns in COVID-19 Cases and Deaths in Long-Term Care Facilities in 2020

Authors: Priya Chidambaram and Rachel Garfield
Published: Jan 14, 2021

Data Note

In the recent months, the US has experienced record-breaking highs of new coronavirus cases and deaths in nearly every state across the country, and new overall cases and deaths have been higher in January 2021 than at any other point in the pandemic. Research suggests that increased community-level cases are associated with increased long-term care cases. A rise in cases in LTC facilities (LTCFs) is particularly concerning, given that those who live in LTCFs are more vulnerable to severe illness and death from the virus than the general population. In recognition of their high-risk status, LTCF residents and staff have been prioritized for vaccine distribution. However, initial reports indicate slower-than-anticipated rollout, with some reports of high levels of vaccine hesitancy among LTCF staff members. These delays will likely mean additional deaths due to COVID-19 in LTCFs.

This analysis assesses when new LTCF cases and deaths were highest in states across the country, as well as how national trends in LTCF COVID-19 cases/deaths compare to national trends in overall COVID-19 cases/deaths. This piece is limited to data from 2020 since a full month of 2021 data was not available at the time of analysis. Thus, the findings in this data note reflect only when LTCF cases and deaths were highest in 2020. It is likely that many states will hit peak new cases and deaths in LTCFs in early 2021, surpassing the 2020 highs. This analysis finds that, mirroring total COVID-19 cases and deaths trends, LTCF cases were highest in December 2020 and LTCF deaths were highest in April 2020. However, there is a great deal of state variation in these findings, with many states reporting highest new LTCF deaths in December 2020. Our analysis builds on other research examining recent surges in LTCF cases and deaths by providing state-level data, including data through the end of 2020, and comparing LTCF trends to overall trends.

This analysis draws on state-reported data from 42 states to examine patterns in LTCF COVID-19 cases and deaths across the country, including 38 states that report trend-able data on cases and 39 states that report trend-able data on deaths. Detailed state-level data on average weekly new cases and deaths from April – December 2020 is available in Tables 1 and 2. Data reported in this paper is as of the week of December 27th. See Methods box for more details. For a closer look at long-term care trends prior to September, see Key Questions About the Impact of Coronavirus on Long-Term Care Facilities Over Time.

When Did States Report Highest New COVID-19 Cases and Deaths in Long-Term Care Facilities in 2020?

Cases

Approximately three-quarters of reporting states with trend-able data (28 of 38) experienced their highest average weekly number of new coronavirus cases in long-term care facilities in November or December 2020 (Table 1). Among the 38 states that reported at least four months of trend-able data on LTCF cases since April 2020, four states reported highest average weekly new cases in November 2020, and 24 states reported their highest average weekly new cases in December 2020. This pattern aligns with timing of when many states experienced their highest state-wide new cases and deaths.

A small number of states, concentrated in the Northeast and Southeast, saw highest new cases in LTCFs earlier in the year (Figure 1 and Table 1). Six states experienced their highest average weekly new LTCF cases in Spring of 2020, defined as April or May 2020 (CT, DC, GA, MA, NJ, and RI), with 5 of these 6 states experiencing highest new cases in April 2020 (Table 1). New York, whose early LTCF outbreaks were comparable to those in NJ or CT, does not report data on cases in long-term care facilities. Another four states experienced their highest new LTCF cases in Summer 2020, defined as June, July, or August 2020 (AL, DE, LA, and SC). All other states experienced highest new LTCF cases in the last two months of 2020, coinciding with the recent community-level surges.

Deaths

Over half of reporting states (21 of 39 states) reported their highest average weekly new COVID-19 deaths in long-term care facilities in the last two months of 2020, mostly in December (Table 2). 39 states have reported at least four months of trend-able data on LTCF deaths since April 2020. Of these states, three reported highest average weekly new deaths in November, while nearly half (18 states) reported highest new deaths in December 2020.

States that had reported highest new COVID-19 LTCF deaths in the Spring of 2020 were clustered in the Northeast region of the country, while most of the states that reported highest new LTCF deaths in December 2020 were in the West and the Midwest (Figure 2). States in the Northeast were most likely to experience highest new LTCF deaths sometime in Spring 2020 (April or May) while states in the Southeast were more likely to experience highest new LTCF deaths in Summer 2020 (June- August). Three of the 39 states included in this trend analysis for deaths experienced highest new deaths in November 2020, two of which were Mountain-area states (MT and ND). The remaining 18 states, primarily in the Midwest, West coast, and a few states in the South, experienced their highest new LTCF deaths due to COVID-19 in December 2020.

National Patterns in Long-Term Care Cases and Deaths

Mirroring overall COVID-19 cases and deaths, new LTCF cases were highest nationally in December 2020, while new LTCF deaths were highest nationally in April 2020. (Figure 3). Overall cases are defined as total coronavirus cases in the US population. New overall cases nationally were the lowest at the start of the pandemic, which can be partially attributed to the relatively low testing availability early in the pandemic. In comparison, new LTCF cases dropped from between the spring and summer and were the lowest in summer months before rising again in later in the year. The drop in new cases over the summer may be attributed to the measures that LTCFs put in place to mitigate spread.

National data shows that both total overall and LTCF cases and deaths have been on the rise since September. Based on early state-level trend data, it appears that this trend will continue through early 2021, suggesting that the peak in deaths in LTCFs is yet to come, and could occur in early 2021.

Figure 3: COVID-19 Cases and Deaths in Long-Term Care Facilities Compared to Overall COVID-19 Cases and Deaths

Looking Ahead

Overall, trends in long-term care facilities to some extent mirror trends in community outbreaks, although LTCF cases and deaths may be affected by measures that have been put in place to mitigate the impact of the pandemic on residents and staff. This analysis finds wide variation across states in the timing of highest new cases and deaths due to COVID-19, with some regions of the country experiencing its worst LTCF outbreaks very recently. These outbreaks are happening at the same time that vaccines are making their way to long-term care facility residents and staff. Early data suggests that initial vaccine distribution has been slower than anticipated and that staff vaccination rates are relatively low due, in part due to vaccine hesitancy, which could lead to the continued spread of the virus in long-term care facilities. Based on recent trends, it is likely that we will see a continued rise in new cases in the early months of 2021. Given that the peaks in cases and deaths tend to overlap, it is likely that spread of the virus will mean additional deaths, possibly making the coming months the deadliest of the pandemic for long-term care residents and staff.

Methods 

This analysis is based on data as of the week of December 27th from 41 states plus Washington DC, for a total of 42 states. Within these 42 states, we were able to trend long-term care cases in 38 states and long-term care deaths in 39 states. Not all states consistently reported data over the time period included in this study. We included states for which we could reliably trend at least 4 months of data, using the earliest reliable period reported in the state as the starting point for that state’s trend. Nine states were excluded from this analysis because they do not directly report data on cases and deaths in long-term care facilities, their data is sourced from sporadically released media reports, or there were data quality or availability issues in trending data over time. For more information on data sources, see KFF’s long-term care data tracker.

States vary in which facilities they include in LTCF reporting. For all states, we trended the subset facilities and population that would give us the longest reliable trend line. Notable examples of this include Louisiana, where data from non-nursing home long-term care facilities were excluded because they were not consistently reported. In Delaware, analysis excludes staff cases because that data was not reported consistently. For this reason, this analysis should not be used to identify state-level or national data on total long-term care cases and deaths. The most recent data on total cases and deaths in long-term care facilities can be located here.

Tables 1 and 2 present data on average new LTC cases and deaths per week, scaled per 100,000 US and state residents, by month. The first week of available data for each state was not included in this analysis since the first week of data does not reflect a single week of cases/deaths, but rather all cases and deaths that have occurred up to that point. New cases and deaths were calculated for each week thereafter, and then averaged for all of the weeks within the month. These average new cases and deaths were converted to represent cases and deaths per 100,000 state residents to allow for easier comparison across states. Total population data was taken from 2019 state population estimates from the US Census Bureau.

This analysis relies on state-reported data instead of federal data since federal data may exclude cases and deaths prior to May 8th, 2020. This exclusion may miss peaks in states such as New York, New Jersey, and Massachusetts. Additionally, the federal data does not include non-nursing home settings. COVID-19 has disproportionately impacted all types of long-term care settings, such as assisted living facilities and group homes. Thus, the state-reported data is more likely to capture the full burden of cases and deaths in long-term care facilities.

 

Tables

Table 1: Average Weekly New Long-Term Care Cases Per 100,000 State Residents, By Month
AprilMayJuneJulyAugust SeptemberOctoberNovemberDecember
US TOTAL16.611.04.85.15.75.17.014.320.6
(25 states)(32 states)(36 states)(36 states)(38 states)(38 states)(38 states)(38 states)(38 states)
Alabama5.77.96.88.49.67.13.94.67.1
Arkansas1.31.32.64.36.54.515.022.016.9
California8.88.43.68.77.53.22.46.023.6
Colorado9.76.82.11.11.11.93.215.827.8
Connecticut52.827.03.61.80.71.15.411.933.2
Delaware7.79.412.21.01.52.83.63.25.9
District of Columbia9.418.75.21.91.81.01.64.916.2
Georgia12.07.84.79.411.55.34.06.411.5
Idaho2.19.114.08.014.223.025.3
Illinois22.518.89.14.04.54.96.319.330.6
Indiana9.83.715.13.05.613.326.428.5
Kansas1.61.92.34.87.411.021.430.4
Kentucky4.25.25.36.810.617.231.040.5
Louisiana15.516.78.618.121.39.53.98.718.4
Maryland18.611.05.04.42.92.512.520.2
Massachusetts57.731.19.32.42.31.02.65.010.6
Michigan1.91.82.82.15.415.023.9
Minnesota5.27.92.80.93.02.65.817.819.1
Mississippi8.08.86.07.110.69.14.18.011.3
Montana8.022.143.827.8
Nevada8.03.71.84.36.12.32.57.89.6
New Hampshire17.818.59.62.71.84.07.617.724.1
New Jersey72.537.311.63.21.01.82.66.914.3
North Carolina4.74.73.45.19.38.79.49.416.8
Ohio19.010.24.76.27.96.411.429.442.3
Oklahoma5.23.41.83.36.06.27.76.712.9
Oregon2.32.53.93.33.68.620.5
Pennsylvania19.515.57.14.14.04.45.916.035.7
Rhode Island36.930.54.21.22.75.23.415.932.8
South Carolina5.06.13.19.79.17.25.85.98.3
South Dakota15.619.935.634.1
Tennessee2.71.71.33.712.79.511.421.522.5
Texas1.22.016.111.06.58.415.019.0
Utah2.43.25.93.45.08.314.616.3
Vermont0.44.52.20.50.10.06.315.4
Virginia4.99.45.33.33.44.24.57.213.0
Washington2.52.53.62.42.94.47.6
Wisconsin2.61.81.30.71.10.83.87.57.0
NOTES: Calculations exclude the first week of reported data since the first week of data does not reflect a single week of cases, but rather all cases that have occurred up to that point. State population data is from 2019 US Census Bureau Estimates.
Table 2: Average Weekly New Long-Term Care Deaths Per 100,000 State Residents, By Month
 AprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
US TOTAL3.02.41.00.60.70.60.71.32.1
 (21 states)(32 states)(37 states)(37 states)(37 states)(39 states)(39 states)(39 states)(39 states)
California0.90.50.70.60.30.20.31.2
Colorado1.11.10.50.20.20.20.21.02.0
Connecticut12.310.12.40.80.10.00.40.72.4
Delaware2.43.22.20.90.20.30.40.81.4
District of Columbia4.03.90.60.20.00.00.00.00.9
Florida0.80.80.71.02.21.21.00.60.8
Georgia1.11.20.60.81.50.60.30.60.7
Idaho0.10.71.30.70.61.21.9
Illinois3.13.31.80.60.40.60.62.03.6
Indiana2.30.91.70.80.40.92.03.3
Iowa0.41.00.70.90.81.01.50.7
Kansas0.20.40.20.30.81.21.83.5
Kentucky0.60.60.50.30.71.01.82.8
Louisiana2.41.21.12.50.70.30.71.5
Maryland3.22.10.50.30.10.10.51.8
Massachusetts11.37.53.21.21.10.91.11.11.9
Michigan0.20.40.30.10.61.42.7
Minnesota2.21.30.40.50.51.02.73.9
Mississippi0.92.21.21.62.21.60.71.11.8
Montana0.51.53.22.8
Nevada0.30.50.20.20.50.50.40.40.9
New Hampshire1.22.71.70.30.20.10.50.72.6
New Jersey13.57.31.80.80.80.20.20.20.6
New York0.83.10.40.20.10.00.10.31.0
North Carolina0.70.70.50.30.91.00.80.91.2
North Dakota0.20.30.42.05.07.56.1
Ohio1.71.00.70.60.70.50.92.0
Oklahoma0.50.50.20.20.60.40.40.60.8
Oregon0.30.20.40.40.30.51.7
Pennsylvania4.23.22.30.60.50.50.51.43.8
Rhode Island2.98.94.00.70.30.91.31.74.4
South Carolina0.60.70.51.41.81.30.60.60.3
South Dakota0.62.36.08.1
Tennessee0.20.30.20.10.90.70.91.11.7
Texas0.20.20.91.30.60.50.81.2
Utah0.20.20.20.50.40.10.40.40.8
Virginia0.41.90.80.30.30.60.50.50.9
Washington0.40.30.60.30.40.50.5
Wisconsin0.50.40.10.20.10.51.21.4
NOTES: Calculations exclude the first week of reported data since the first week of data does not reflect a single week of deaths, but rather all deaths that have occurred up to that point. State population data is from 2019 US Census Bureau Estimates.

Immigrant Access to COVID-19 Vaccines: Key Issues to Consider

Authors: Samantha Artiga, Nambi Ndugga, and Olivia Pham
Published: Jan 13, 2021

Introduction

As COVID-19 vaccine distribution continues and expands to larger segments of the population, it is important to consider how to prevent disparities and ensure equitable access to the vaccine. Ensuring all individuals have access to the vaccine and achieving a high vaccination rate across communities will be necessary to mitigate the disproportionate impacts of the pandemic for underserved populations, prevent widening disparities going forward, and achieve broad population immunity. The nearly 22 million noncitizen immigrants living in the U.S. today face increased risks and challenges associated with the pandemic. Many noncitizen immigrants work in essential jobs that are likely to be included in initial priority groups for COVID-19 vaccination, but they face a variety of potential barriers to obtaining the vaccine. As such, targeted efforts to reach noncitizen immigrants as part of vaccination efforts will be central for preventing disparities in vaccination. This brief provides an overview of key issues to consider for reaching noncitizen immigrants as part of COVID-19 vaccination efforts.

Vaccination Plans and Immigrants

Immigrants make up a significant share of workers in certain categories that are likely to be included in priority groups for vaccination. The Centers for Disease Control and Prevention’s (CDC) Advisory Committee on Immunization Practices (ACIP) is making federal recommendations for vaccine allocation. ACIP has issued initial recommendations to prioritize certain groups to receive access to the vaccine. The first group recommended for Phase 1a of vaccination included health care personnel and residents and staff of long-term care facilities. It subsequently recommended that Phase 1b should include people aged 75 or older and (non-health care) frontline essential workers, and Phase 1c include people aged 65-74 years old, people aged 16-64 years with high-risk medical conditions, and essential workers not included in Phase 1b. States have the discretion to determine their own prioritization and distribution plans and, while some states are following the ACIP recommendations, others are making alternative prioritization decisions. Overall, there are nearly 13 million noncitizen immigrant workers who make up 8% of the workforce. They account for a significant share of workers in categories that are likely to be classified as essential and prioritized for vaccination. For example, they make up 5% of health care workers who have direct patient contact and 8% of those workers in long-term care settings, who are included in the initial Phase 1a priority group for vaccination. They also account for over one in five (22%) of all food production workers, including over a third of crop production workers.

Potential Barriers to Vaccination among Immigrants

Noncitizen immigrants face a range of potential access-related barriers to obtaining a COVID-19 vaccination. Noncitizen immigrants are more likely than citizens to be uninsured (Figure 1) and, as a result, are less likely to have a usual source of care as well as more likely to delay or go without it and to have concerns about its costs. The federal government has provided resources to make the COVID-19 vaccine available at no cost for people who are uninsured regardless of immigration status. However, people who are uninsured may be more likely to have concerns about the potential costs associated with obtaining the vaccine. Noncitizen immigrants may also face challenges accessing the vaccine due to limited transportation options, lack of flexibility in work and childcare demands, and/or language and literacy challenges.

Figure 1: Uninsured Rates among Nonelderly Population by Immigration Status, 2019

Although anticipated side effects of the COVID-19 vaccine are generally mild, noncitizen immigrants may have heightened concerns about potential side effects. Across the broad population, worries about side effects and safety are a major reason people express hesitancy about getting a vaccine. Although data are not currently available to gauge concerns about vaccine-related side effects among immigrant populations, they may be particularly concerned due to a variety of reasons. Noncitizen immigrants are more likely to be employed in low-wage jobs that are less likely to offer paid sick leave, so they may have heightened concerns that side effects could interfere with their ability to work and result in lost wages. They may also have elevated concerns about health care costs associated with any potential side effects since they are more likely to be uninsured.

Noncitizen immigrants may not know if they are eligible to receive the vaccine and/or worry that obtaining it may have negative immigration-related consequences. Immigrant families may not know if they are eligible for the vaccine, especially since they face restrictions on eligibility for health coverage programs and federal COVID-19 relief. They may also fear that obtaining the vaccine could negatively affect their or a family member’s immigration status. Immigrant families have experienced growing levels of fear and uncertainty over the past few years, during which the federal government has implemented a range of policies to curb immigration, enhance immigration enforcement, and limit the use of public assistance among immigrant families. Research shows that, amid this policy climate, immigrant families have become increasingly reluctant to access programs and services for themselves and/or their children, including health coverage and health care. These fears may also contribute to a reluctance to access the vaccine.

Data collection and sharing related to COVID-19 vaccinations may further raise fears among immigrants. Providers and vaccination sites will collect certain information from individuals receiving the vaccine to monitor uptake, ensure dose matching and appropriate timing for the second dose, and assess vaccine effectiveness and safety. All states have existing state immunization registries or databases to track this data. In addition, the CDC is requiring states to submit COVID-19 vaccination data to support federal monitoring, including certain personally identifiable data, such as name, address, state of birth, and a unique recipient ID. As outlined in the data use and sharing agreement, the Department of Health and Human Services and CDC agree to maintain the confidentiality of identifiable or potentially identifiable data and will only use the data in “furtherance of the public health response to COVID-19.” An appendix to the data use agreement specifies that data may not be used for any civil or criminal prosecution or enforcement, including, but not limited to, immigration enforcement. The data use and sharing agreement further notes that jurisdictions that are unable (due to legal or regulatory restrictions) to submit identifiable data to CDC will be provided with the alternative option for submitting data. Media reports suggest some states are still working through details of their data use and sharing agreements. Beyond these specifications related to data sharing, U.S. Citizen and Immigration Services has clarified that it will not consider testing, treatment, or preventive care, including vaccines, related to COVID-19 as part of a public charge inadmissibility determination. Despite these limits on how the data may be used, the collection of personal data and sharing of it with the federal government will likely make some immigrant families more reluctant to access the vaccine.

Addressing Barriers to Vaccination for Immigrants

Minimizing access barriers, providing targeted outreach and education, and alleviating fears about potential negative immigration-related impacts will be important for preventing gaps in vaccination among immigrant families:

  • Ensuring vaccination sites are available in locations that can be easily accessed through multiple modes (e.g., drive-up or walk-up) during a variety of hours (including evening and weekends) that accommodate different work schedules may help reduce access-related barriers. In addition, including providers that serve large numbers of immigrant families as vaccine administration sites may facilitate access and reduce potential language access barriers.
  • Targeted outreach and education efforts can help individuals understand that they are eligible to obtain the vaccine and that it is available at no cost. Prior experience with public health messaging and outreach and enrollment efforts under the Affordable Care Act (ACA) point to the importance of providing outreach and information through trusted messengers within the community and making culturally appropriate materials available in multiple languages. Even with these actions, some individuals may remain fearful or reluctant to access the vaccine, particularly if they are concerned that side effects could result in lost work and/or health care costs.
  • Minimizing the collection of personally identifiable information, clearly explaining how it will be used, and clarifying that it cannot be used for immigration-related purposes can help reduce fears about accessing the vaccine. While the federal government has indicated that COVID-19 vaccination data cannot be used for immigration enforcement and receipt of the vaccine will not be considered as part of public charge determinations, communicating this information directly to families through trusted messengers will be key for alleviating immigration-related fears.

As of early January 2021, some states have specified plans or actions to specifically address potential barriers to vaccination among immigrant families. A couple of states have indicated prioritizing immigrants as part of vaccination efforts. For example, the state health director in Arizona referred to the undocumented population as a high priority for vaccination, Virginia includes people living in migrant labor camps in Phase 1b of its vaccination plan, and New Jersey includes migrant workers as a high-risk population in Phase 1c. A few states have taken steps to clarify that immigrants are eligible for the vaccine and to reduce fears about potential negative immigration-related impacts. For example, in Connecticut, Governor Lamont noted that receipt of a COVID-19 vaccine is confidential and the information would not be shared with other agencies including Immigration and Customs Enforcement. In Frequently Asked Questions documents, Illinois notes that all individuals, including undocumented immigrants, are eligible for the vaccine and Utah clarifies that personal information is confidential and immigration status will not affect ability to get the vaccine. In early December 2020, New York’s Governor Cuomo sent a letter to the Secretary of Health and Humans Services highlighting concerns the requirements for states to share certain data on vaccinations with the federal government could dissuade undocumented immigrants from seeking vaccinations. Several states, including Arizona, Oregon, and Washington, indicated plans to develop targeted messaging and outreach to immigrant communities. Oregon and Washington also explicitly mentioned including immigrant and refugee communities in planning and advisory work to inform vaccine dissemination. In contrast to these efforts, state officials in Nebraska made remarks suggesting that undocumented immigrants may be excluded or prioritized behind citizens for vaccination.

Conclusion

In sum, the COVID-19 pandemic presents increased risks and challenges for noncitizen immigrants. Many noncitizen immigrants work in essential jobs that are likely to be included in initial priority groups for COVID-19 vaccination, but they face a variety of potential barriers to obtaining the vaccine, including access-related barriers, confusion about eligibility and potential costs, concerns about health and economic impacts of side effects, and immigration-related fears. Given these barriers, efforts to minimize access barriers and targeted outreach and information will be important for facilitating access to vaccination for immigrant families. To date, few states have specified plans or actions to address potential barriers facing immigrant families specifically. Looking ahead, assessing immigrant access to the vaccine and willingness to obtain it will be important for mitigating the impacts of COVID-19 on immigrant communities, preventing widening health disparities for immigrants in the future, and avoiding gaps in vaccination that could leave communities at risk for the continued spread of COVID-19 infections.

News Release

Analysis Examines the Implications of Price Transparency for Providers and Patients as New Rules Go into Effect

Published: Jan 13, 2021

A new KFF analysis examines how new federal rules on price transparency for health services may affect patient decision-making and market pricing.

As of January 1, 2021, the United States Department of Health and Human Services requires that hospitals publish payer-negotiated rates for common services on their websites. A second set of rules, which requires insurers to provide rate and cost-sharing estimates for common services, is scheduled to go into effect in 2023.

While the new rules are intended to help patients save money by choosing lower-priced care, the analysis finds that many patients still face significant barriers to shopping for common health services. Many health services, particularly those that treat emergent conditions like heart attacks, cannot be planned for in advance, and awareness of price comparison tools among consumers is limited. The listed rates may not reflect patients’ final out-of-pocket costs if additional services, unaccounted for when the patient used the transparency tool, were received during the course of care.

The brief also presents new analysis of the significant geographic variation in prices for three common services covered under the price transparency rules: hip and knee replacements, MRIs, and cholesterol tests. The average price of a lower back MRI in Oakland, CA is $853 – over 144% higher than the average price in Orlando, FL ($349). Even within the same region, prices for a given service can vary dramatically: for example, a knee or hip joint replacement in the Houston, TX area could cost as little as $28,815 or as much as $45,775.

The analysis is available on the Peterson-KFF Health System Tracker, an online information hub dedicated to monitoring and assessing the performance of the U.S. health system.

Price Transparency and Price Variation in U.S. Health Services

Authors: Nisha Kurani, Matthew Rae, Karen Pollitz, Krutika Amin, and Cynthia Cox
Published: Jan 13, 2021

A new issue brief summarizes the key requirements for hospitals, insurers, and self-funded employer plans under new federal price transparency rules. As of January 1, 2021, hospitals are required to make payer-negotiated rates for common services available to consumers on an online tool, and for all services in a machine-readable file. A second rule requires insurers in the individual and group markets and self-funded employer plans to make rates and individualized cost-sharing estimates for certain common services available to enrollees by January 1, 2023, and for all services by the following year.

In addition to examining how the new transparency rules may affect patient decision-making, the brief considers their impact on market pricing, including the significant geographic variation in prices for common health services.

The issue brief is available in full on the Peterson-KFF Health System Tracker, an online information hub dedicated to monitoring and assessing the performance of the U.S. health system.

Medicaid Expansion Enrollment and Spending Leading up to the COVID-19 Pandemic

Authors: Madeline Guth, Bradley Corallo, Robin Rudowitz, and Rachel Garfield
Published: Jan 12, 2021

Issue Brief

Key Takeaways

Medicaid enrollment has increased during the coronavirus pandemic, a trend that likely reflects adverse economic effects of the pandemic (including increased job and income loss) as well as continuous coverage requirements from the Families First Coronavirus Response Act. This issue brief analyzes enrollment and spending trends related to the Affordable Care Act’s Medicaid expansion ahead of the pandemic and examines potential consequences of recent enrollment increases. Key findings include:

  • In FY 2019, the expansion group represented 20% of all Medicaid enrollment. In expansion states alone, the expansion group composed 28% of enrollment. The share of Medicaid enrollment represented by the expansion group varied across expansion states and was less than 50% of total enrollment in all these states. FY 2019 was the first year in which expansion enrollment declined from the previous year since expansion’s implementation in 2014.
  • Spending on the expansion group represented 16% of all Medicaid spending in FY 2019 and was primarily federal funds. The share of Medicaid spending represented by expansion spending varied across expansion states and was less than 40% of total spending in all these states. As total Medicaid spending has increased in recent years, the share of spending on the expansion group has remained constant at around 21% in expansion states.
  • Average Medicaid spending per enrollee in FY 2019 was lower for the expansion group ($6,110) than for non-expansion enrollees ($8,370). Although per capita expansion spending varied across expansion states (from $3,950 to $12,330), it is lower than per capita spending for other groups in nearly all expansion states.

Given that the recent economic downturn has caused many adults to lose employment and/or income, Medicaid expansion enrollment and spending are likely to grow at a fast pace during the pandemic. Estimates suggest that expansion enrollment growth has outpaced overall Medicaid enrollment growth from February to August 2020. This analysis sheds light on the potential federal and state obligations for that spending and relative cost to Medicaid programs. Looking ahead, uncertainty remains regarding the future course of the pandemic, the scope and length of federal fiscal relief efforts, and potential state and federal policy actions to expand coverage.

Introduction

The coronavirus pandemic has generated both a public health crisis and an economic crisis, with major implications for Medicaid enrollment, particularly among the expansion population. Many people who lose their jobs and health coverage during the pandemic will qualify for Medicaid if their income falls below eligibility limits, and low-income adults living in states which have expanded Medicaid under the ACA will have more coverage options than those in states that have not expanded. These states provide coverage to the Medicaid expansion group, which includes adults under age 65 with incomes at or below 138% of the federal poverty level (FPL). (Medicaid enrollees who do not qualify for coverage under the expansion are referred to as the “traditional Medicaid” group throughout this brief; see Box 1 for more details.) Medicaid enrollment has increased by more than five million individuals during the pandemic from February to August 2020. Data from a subset of states suggests that enrollment through the expansion has outpaced growth overall since the start of the pandemic.

Increased Medicaid enrollment has implications for both federal and state spending. For traditional Medicaid enrollees, states receive their regular match rate (“FMAP”) plus additional federal support through a 6.2 percentage point increase in the federal Medicaid match rate for traditional Medicaid spending. The federal government continues to pay a larger share (90%) of the costs for those already or newly enrolled in the expansion group. New expansion group enrollment is likely to compose a large share of increased overall Medicaid enrollment during the pandemic; however, the 6.2 percentage point FMAP increase does not apply to spending for the expansion group.

This issue brief analyzes pre-pandemic trends for enrollment in and spending on the expansion group and examines potential consequences of recent enrollment increases during the pandemic. Enrollment and expenditure data are from the Medicaid Budget and Expenditure System (MBES). As of writing, enrollment data for the fourth quarter of FY 2019 have not been released, and our FY 2019 enrollment figures are drawn from annualized enrollment totals from the data available. Additionally, two states, Maine and Virginia, implemented Medicaid expansion later in FY 2019, so expansion spending in these two states reflect only the months that the expansion has been in effect. States which have or plan to implement the expansion after FY 2019 (Idaho, Utah, Nebraska, Oklahoma, and Missouri) are considered non-expansion states for all years of this analysis. Enrollment and expenditure data for New York have been adjusted due to what appear to be reporting anomalies for the traditional Medicaid group and expansion group, which affected national totals. We did not make adjustments for any other states. See the Methods section for more information.

Box 1: Defining the Medicaid Expansion Group vs. the Traditional Medicaid Group

The Medicaid expansion group includes individuals who are enrolled in the Medicaid expansion under the ACA. In states that have implemented the Medicaid expansion (which was made effectively optional by the Supreme Court ruling on the ACA’s constitutionality), nearly all adults under age 65 and with incomes at or below 138% of the FPL ($17,609 per year for an individual in 2020) are eligible for Medicaid. States receive an enhanced federal match rate for spending on expansion adults, although there was a different federal match rate for adults who became newly eligible under the ACA (“newly eligible enrollees”) versus adults were enrolled through state waivers prior to passage of the law in 2009 (“not newly eligible enrollees”). As of January 2020, the federal match rate for all Medicaid expansion group spending is 90%, where it will remain going forward.

The traditional Medicaid group includes all other Medicaid enrollees not enrolled through the Medicaid expansion. Beyond federally mandated eligibility groups, states have discretion in which groups are eligible for Medicaid coverage, but these often include qualifying children, persons with disabilities, pregnant women, elderly individuals, people dually enrolled in Medicaid and Medicare, and low-income parents with eligibility levels at pre-ACA limits (the pre-ACA median eligibility limit for parents across all states was 64% of the FPL). The federal match rate for this group is based on states’ lagged relative per capita income and, in FY 2019, ranged from a floor of 50% to a high of 76%.

Medicaid Expansion Enrollment

In FY 2019, the expansion group represented 20% of all Medicaid enrollment and 28% of enrollment in expansion states (Figure 1, Appendix Table 1). In total, Medicaid enrollment for FY 2019 was 75.2 million individuals across all 50 states and DC, with 15.3 million adults enrolled in the expansion group. Within the expansion group, most (81%, 12.5 million) were newly eligible enrollees covered through Medicaid expansion, while a smaller share (19%, 2.9 million) were not newly eligible enrollees (childless adults who were enrolled through state waivers prior to passage of the ACA). The majority of Medicaid enrollment overall (80%, 59.8 million) was within the traditional Medicaid group, which is composed of several different eligibility groups (see Box 1 above for more information). These groups are subject to varying eligibility levels across states, with children and pregnant women generally covered at much higher eligibility levels compared to non-expansion parents and seniors and people with disabilities.

Figure 1: The expansion group represented one out of every five Medicaid enrollees in FY 2019.

The share of Medicaid enrollment represented by the expansion group varies across expansion states in FY 2019 (Figure 2). Expansion enrollment ranged from a high of 48% of total enrollment in Oregon to a low of 11% in Maine, which implemented Medicaid expansion coverage in the second quarter of FY 2019 (January 2019), although Maine allowed for retroactive enrollment as early as July 2018. The variation across expansion states likely reflects several factors, including different poverty distributions and economic conditions across states (particularly, the state share of the population with income at or below 138% of the FPL) as well as variation in state Medicaid eligibility levels for expansion and traditional groups. For example, the District of Columbia covers expansion adults above the minimum threshold of 138% FPL, with a threshold of 221% FPL for parents and 215% FPL for other adults.

Figure 2: The share of Medicaid enrollment for the new adult group varies by expansion state.

Expansion group enrollment peaked in FY 2017 and FY 2018 but declined in FY 2019, despite two states (Maine and Virginia) that newly implemented Medicaid expansion that year (Figure 3). Expansion enrollment grew from 13.6 million enrollees in FY 2015 (the first full fiscal year of Medicaid expansion following its implementation beginning January 2014), when 30 states had implemented expansion, and peaked at roughly 15.6 million expansion enrollees in FY 2017 and FY 2018, when 32 states had implemented expansion. Expansion enrollment declined to 15.3 million in FY 2019, despite the addition of two more states implementing expansion that year (34 in all). Traditional Medicaid enrollment showed a different trend, declining from a high of 63.2 million in FY 2015 to 59.8 million in FY 2019, with annual declines in all years except FY 2018. Trends in overall (traditional plus expansion) Medicaid enrollment were similar to those for traditional Medicaid enrollment, with annual declines in every year except for FY 2018. Several factors could have contributed to recent declining enrollment for expansion and traditional enrollees, such as improving economic conditions, barriers to maintaining or renewing coverage, and federal funding cuts to outreach and enrollment programs that assist eligible individuals enrolling in Medicaid or marketplace coverage.

Figure 3: Medicaid enrollment for the expansion group peaked in ​FYs 2017 and 2018 and then declined in 2019.​

Medicaid Expansion Spending

In FY 2019, spending on the expansion group represented 16% of all Medicaid spending and 21% of spending in expansion states (Figure 4, Appendix Table 2). Medicaid spending totaled $594.6 billion across all 50 states and DC. Across the 34 states that implemented expansion before or during FY 2019, spending on the expansion group totaled $93.8 billion that year. Spending on the traditional Medicaid population was much higher: $347.6 billion in expansion states (79% of total spending) and $500.8 billion across all states (84% of total spending). This difference in spending is partially explained by the greater number of traditional enrollees compared to expansion enrollees. Further, the traditional Medicaid group is composed of many different eligibility groups, including groups with smaller enrollment levels but higher per-enrollee spending such as seniors and people with disabilities (for more details, see Per Capita Spending section below). Thus, the proportion of spending represented by the expansion group is lower than its share of enrollment (21% vs. 28% in expansion states).

Figure 4: Most Medicaid spending in FY 2019 was for the traditional Medicaid population.​

The share of Medicaid spending represented by expansion spending varied across expansion states in FY 2019 and was less than 40% of total spending in all these states (Figure 5). The share of spending on the expansion group ranged from 4% in Maine to 39% in Montana. (Virginia and Maine implemented expansion in the second quarter of FY 2019 and do not represent a full year of spending.) Much like enrollment, several factors likely contribute to this variation. These include demographic differences across states (such as age and income level of the population), variation in benefit packages and payment levels, and state variation in eligibility limits for other, non-expansion groups (such as seniors and people with disabilities and parents with income at or below pre-ACA eligibility limits).

Figure 5: The share of Medicaid spending on the expansion group varies by expansion state.

Medicaid expansion spending is primarily federal funds, with state spending on the expansion group representing just 1% of overall Medicaid spending in FY 2019 (Figure 6). The ACA initially provided 100% federal financing for expansion costs in 2014; this match rate gradually fell to 93% in 2019 then to 90% in 2020 and beyond.1  In FY 2019, expansion spending totaled $93.8 million, $84.9 billion of which was paid for by the federal government with the remaining $8.9 billion paid for by states. In contrast, states contributed a larger proportion of traditional Medicaid spending, attributable to the lower federal match rate for the traditional population, which in FY 2019 ranged from 50% to 76% based on a statutory formula that accounts for each state’s average per capita income relative to the national average.

Figure 6: Medicaid expansion spending accounts for 16% of overall spending and is primarily federal funds.​

As total Medicaid spending has increased in the years since FY 2015, the share of spending represented by the expansion group has remained nearly constant (Figure 7). The share of Medicaid spending on the expansion group has remained between 20% and 22% of total Medicaid spending in expansion states for every year from FY 2015 through FY 2019, suggesting that increases in total Medicaid spending over these years have been proportionately driven by the expansion and traditional populations. The share of total spending represented by expansion spending has remained similarly constant across all states as well (between 14% and 16%). Notably, while total spending increased in FY 2019 for both the expansion and traditional Medicaid groups, enrollment declined that year. Not accounting for the initial increase in spending immediately following implementation, expansion states and non-expansion states experienced similar total spending growth from FY 2015 to FY 2019: 12% growth for both the 30 states that expanded Medicaid by FY 2015 (excluding Louisiana, Maine, Montana, and Virginia, which implemented expansion between FY 2015 and FY 2019) as well as for the 17 non-expansion states. Several factors may explain growing Medicaid costs aside from enrollment, including changes to the makeup of the Medicaid population, service utilization, and rising costs. In FY 2019, states identified increasing costs for prescription drugs, provider rate increases, pressures from an aging population, and a higher acuity case-mix as key upward pressures on total Medicaid spending.

Figure 7: The share of Medicaid spending on the expansion group has remained nearly constant over time in expansion states.​

Per Capita Spending

Medicaid spending per enrollee is lower for the expansion group than for other groups (Figure 8, Appendix Table 3). While overall spending per enrollee was $7,910 in FY 2019, spending per expansion enrollee was just $6,110 and spending per traditional enrollee was $8,370 (spending per expansion enrollee may be slightly underreported due to Maine and Virginia implementing expansion later in this fiscal year). This difference is in line with earlier data finding lower spending per enrollee for adults and children as compared to other groups. In contrast, the elderly and beneficiaries with disabilities account for a disproportionate share of Medicaid spending, largely attributable to greater need for acute care and long-term care.

Figure 8: Medicaid spending per enrollee is lower for the expansion group compared to total spending per enrollee.​

Spending per expansion enrollee varies across expansion states (Figure 9). In FY 2019, spending per expansion enrollee ranged from $3,950 in Vermont to $12,330 in North Dakota (Virginia and Maine implemented expansion in the second quarter of FY 2019, so spending per expansion enrollee may be slightly underreported in these figures). Spending per expansion enrollee was lower than per capita spending for other groups in nearly all expansion states, and states with higher total spending per enrollee generally also had higher spending per expansion enrollee. Factors that may contribute to variation in per capita spending across states include differences in health care costs and utilization and the relative health status of the underlying populations.

Figure 9: Spending per expansion group enrollee varies by state.​

Looking Ahead

Medicaid expansion enrollment has grown at a fast rate during the pandemic. In a reversal of prior trends, recent data shows that total enrollment is increasing during the pandemic, reflecting changes in the economy (as more people experience income and job loss and become eligible and enroll in Medicaid coverage) and provisions in the Families First Coronavirus Response Act (FFCRA) that require states to ensure continuous coverage for current Medicaid enrollees and meet other maintenance of eligibility (MOE) conditions to access a temporary increase in the Medicaid federal match rate. Current Medicaid and CHIP enrollment data show that total enrollment increased by over 5 million (7.4%) from February to August 2020, with non-expansion states experiencing slightly faster growth over this time period as compared to expansion states (8.4% growth vs. 7.1% growth). However, enrollment data collected from a subset of state websites for specific eligibility groups show that Medicaid expansion enrollment is growing at a faster rate than enrollment overall, which would lead to a commensurate increase in expansion spending. Non-expansion states are more likely to see increases in the uninsured population as adults who lose employer-sponsored insurance during the pandemic have fewer coverage options in these states.

Although federal dollars will pay for the majority of increased Medicaid spending during the pandemic, states still face economic pressure and may look to cost cutting measures. The federal government pays 90% of costs for the expansion group, which is substantially higher than the regular match rate in all states. Additionally, research showing positive economic outcomes from the Medicaid expansion suggests that expansion states could be better positioned to cope with the economic fallout of the pandemic. The federal government also continues to contribute a higher portion of non-expansion spending to offset costs during the pandemic: under the FFCRA, states that meet MOE conditions receive an additional 6.2 percentage point increase in the federal match rate for traditional spending through the quarter in which the national public health emergency declaration ends. Despite substantial increases in federal dollars going to states for Medicaid during the pandemic, budgetary pressures may cause some states to look to Medicaid program cuts. Because of the federal match for Medicaid spending, programmatic cuts must be substantial to generate state savings, especially for the expansion population. For example, a $100 reduction in expansion spending would yield only $10 in state savings.

Looking ahead, uncertainty remains regarding the future course of the pandemic, the scope and length of federal fiscal relief efforts, and potential state and federal policy actions to expand coverage. As people continue to lose jobs and income during the pandemic, non-expansion states may consider adopting Medicaid expansion to increase coverage. While any new adoption of expansion would increase federal dollars going to states due to the 90% federal match, states may have difficulty covering the remaining 10% of expansion spending amid adverse state budgetary impacts during the pandemic. At the federal level, President-elect Joe Biden has supported a new federal public health insurance option which would be available to individuals in non-expansion states who would otherwise be eligible had their states adopted Medicaid expansion; however, this plan may face challenges to passage in a closely divided Senate. Policymakers may consider more narrow options, such as proposals to make 100% federal financing available to states that newly expand. Additionally, President-elect Joe Biden could implement a number of administrative actions that could increase Medicaid coverage in expansion and non-expansion states

Methods

This analysis uses data from the Medicaid Budget and Expenditure System (MBES) from the Centers for Medicare and Medicaid Services (CMS). MBES enrollment data may differ from other Medicaid enrollment counts, such as the Medicaid and CHIP Performance Indicator Project. MBES enrollment data are reported monthly and based on an unduplicated count of individuals enrolled in Medicaid at any time in the month. Additionally, enrollment data include individuals enrolled in limited benefit plans. Enrollment data for the fourth quarter of FY 2019 have not been released as of writing, and enrollment figures presented in this brief for FY 2019 are based on annualized measures of the first three quarters of the 2019 fiscal year, described immediately below. MBES expenditure data for FY 2019 are complete for the full fiscal year.

Fiscal Year Enrollment: Annual enrollment totals used in this report are based on the maximum monthly enrollment for the fiscal year in each state. While this measure is used to estimate the total number of enrollees over the entire fiscal year, it is likely an undercount of the number of enrollees served throughout the year. Total Medicaid enrollment is calculated from the maximum monthly total enrollment. Medicaid expansion group enrollment is calculated as the sum of the maximum newly eligible expansion Group VIII enrollment and the maximum not newly eligible Group VIII enrollment reported in MBES, in line with a previous KFF analysis (Group VIII is synonymous with the expansion group defined in this report). Traditional Medicaid enrollment is calculated as the difference between the maximum monthly total enrollment for a fiscal year and the Medicaid expansion group total. Traditional Medicaid enrollment and expansion group enrollment sum to total enrollment for each fiscal year. National totals are the sum of states’ enrollment totals.

Fiscal Year Expenditures: Expenditure totals for states are extracted from annual Financial Management Reports (FMR). National totals represent the sum of state totals.

Expansion States: States with Group VIII enrollment of at least one enrollee in a fiscal year are considered expansion states in that year for this analysis. In FY 2019, this includes all states which had implemented the expansion by September 30, 2019 and excludes states which have implemented or plan to implement the expansion after this date (Idaho, Utah, Nebraska, Oklahoma, and Missouri). Coverage under the ACA’s Medicaid expansion became effective January 1, 2014 (partway through FY 2015) in most states, with additional states implementing expansion after this date. State expansion implementation dates may not align with federal fiscal years, and we did not adjust our calculations for expansion enrollment or expenditures for states that implemented expansion later in the fiscal year. In 2019, this only affected Maine and Virginia, which both implemented expansion on January 1, 2020, with Maine allowing retroactive enrollment through July 2018. Adjusting expansion enrollment to reflect three-quarters of the fiscal year in these two states did not make a large difference for national totals. Expansion spending in these two states reflect only the months that the expansion was in effect.

Adjustments: Due to what appear to be data reporting anomalies in expenditures for the traditional Medicaid group and the expansion group (potentially reflecting adjustments and recategorizations) that affected national totals, New York expenditures for FY 2017 through FY 2019 were adjusted by applying the spending distribution for these groups from FY 2016. Total Medicaid spending for New York was not adjusted. We also excluded enrollment data from the third and fourth quarters of FY 2017 for New York, due to anomalous, large shifts in enrollment between the traditional Medicaid group and the expansion groups. Total enrollment was consistent through FY 2017, indicating that no large changes in enrollment for either traditional or expansion groups likely occurred in the quarters that we excluded.

Appendix

Appendix Table 1: Total Medicaid Enrollment, FY 2019 (In Thousands)
StateExpansion StatusTotal EnrollmentTraditional GroupExpansion GroupExpansion Group (%)
United States75,17659,82915,34728%2
AlabamaNot Adopted1,0351,035N/AN/A
AlaskaAdopted2071565125%
ArizonaAdopted1,8801,45342723%
ArkansasAdopted87260326931%
CaliforniaAdopted12,8759,0733,80230%
ColoradoAdopted1,28987941032%
ConnecticutAdopted95568826828%
DelawareAdopted2191576329%
District of ColumbiaAdopted26115210942%
FloridaNot Adopted3,8793,879N/AN/A
GeorgiaNot Adopted1,9661,966N/AN/A
HawaiiAdopted31720411436%
Idaho1Not Adopted304304N/AN/A
IllinoisAdopted2,7502,04670426%
IndianaAdopted1,3361,02331323%
IowaAdopted60743417329%
KansasNot Adopted374374N/AN/A
KentuckyAdopted1,29984845235%
LouisianaAdopted1,6791,17150930%
MaineAdopted2702422811%
MarylandAdopted1,22991831125%
MassachusettsAdopted1,7651,41934620%
MichiganAdopted2,4431,73970429%
MinnesotaAdopted1,09889520218%
MississippiNot Adopted675675N/AN/A
Missouri1Not Adopted917917N/AN/A
MontanaAdopted26016010038%
Nebraska1Not Adopted246246N/AN/A
NevadaAdopted60038621436%
New HampshireAdopted1861315530%
New JerseyAdopted1,6681,11655233%
New MexicoAdopted83858025831%
New YorkAdopted6,1564,2391,91731%
North CarolinaNot Adopted2,1822,182N/AN/A
North DakotaAdopted93722022%
OhioAdopted2,9012,31558620%
Oklahoma1Not Adopted653653N/AN/A
OregonAdopted96749946848%
PennsylvaniaAdopted2,8692,09377627%
Rhode IslandAdopted3092397022%
South CarolinaNot Adopted1,2701,270N/AN/A
South DakotaNot Adopted105105N/AN/A
TennesseeNot Adopted1,5861,586N/AN/A
TexasNot Adopted4,2554,255N/AN/A
Utah1Not Adopted293293N/AN/A
VermontAdopted1741165833%
VirginiaAdopted1,5321,24728419%
WashingtonAdopted1,7601,19057032%
West VirginiaAdopted53236916331%
WisconsinNot Adopted1,1831,183N/AN/A
WyomingNot Adopted5858N/AN/A
NOTES: Totals may not sum due to rounding. 1. Idaho, Missouri, Nebraska, Oklahoma, and Utah have adopted Medicaid expansion due to successful ballots measures but have either implemented or plan to implement the expansion after FY 2019. 2. Percent of expansion group for United States is based on total enrollment in expansion states only. Expansion group enrollment is 20% in all states and DC.SOURCE: KFF Analysis of Medicaid Budget and Expenditure System (MBES) enrollment reports as of June 2020 and FMR net expenditure data as of September 2020.
Appendix Table 2: Total Medicaid Expenditures, FY 2019 (In Millions)
StateExpansion StatusTotal ExpendituresTraditional GroupExpansion GroupExpansion Group (%)
United States594,570500,79393,77721%2
AlabamaNot Adopted5,8805,880N/AN/A
AlaskaAdopted2,0961,64944821%
ArizonaAdopted13,1689,9393,22925%
ArkansasAdopted6,8435,0711,77226%
CaliforniaAdopted87,85667,85520,00123%
ColoradoAdopted9,2027,5321,66918%
ConnecticutAdopted8,1685,9962,17227%
DelawareAdopted2,2461,78246321%
District of ColumbiaAdopted2,8922,45244015%
FloridaNot Adopted24,38424,384N/AN/A
GeorgiaNot Adopted10,85210,852N/AN/A
HawaiiAdopted2,1781,60956926%
Idaho1Not Adopted2,1432,143N/AN/A
IllinoisAdopted18,47012,8145,65631%
IndianaAdopted12,4399,9542,48620%
IowaAdopted5,2004,1571,04220%
KansasNot Adopted3,6023,602N/AN/A
KentuckyAdopted10,2087,2182,98929%
LouisianaAdopted11,6428,5043,13827%
MaineAdopted2,8672,7481194%
MarylandAdopted11,7309,0112,71923%
MassachusettsAdopted17,41315,2022,21113%
MichiganAdopted18,25813,7874,47124%
MinnesotaAdopted12,72110,8761,84515%
MississippiNot Adopted5,5075,507N/AN/A
Missouri1Not Adopted10,53510,535N/AN/A
MontanaAdopted1,8581,14071839%
Nebraska1Not Adopted2,1422,142N/AN/A
NevadaAdopted3,9792,6971,28232%
New HampshireAdopted1,9851,73025513%
New JerseyAdopted15,90912,6153,29321%
New MexicoAdopted5,2633,7931,47028%
New YorkAdopted58,09448,3319,76317%
North CarolinaNot Adopted13,59613,596N/AN/A
North DakotaAdopted1,16491225222%
OhioAdopted23,46619,4564,01017%
Oklahoma1Not Adopted4,7604,760N/AN/A
OregonAdopted9,4276,4472,98032%
PennsylvaniaAdopted32,08027,3794,70015%
Rhode IslandAdopted2,5862,14444217%
South CarolinaNot Adopted6,3066,306N/AN/A
South DakotaNot Adopted899899N/AN/A
TennesseeNot Adopted10,09210,092N/AN/A
TexasNot Adopted40,02640,026N/AN/A
Utah1Not Adopted2,7242,724N/AN/A
VermontAdopted1,6381,41022814%
VirginiaAdopted11,3079,7131,59414%
WashingtonAdopted13,1288,7094,42034%
West VirginiaAdopted3,9262,99493224%
WisconsinNot Adopted9,1339,133N/AN/A
WyomingNot Adopted584584N/AN/A
NOTES: Totals may not sum due to rounding. 1. Idaho, Missouri, Nebraska, Oklahoma, and Utah have adopted Medicaid expansion due to successful ballots measures but have either implemented or plan to implement the expansion after FY 2019. 2. Percent of expansion group for United States is based on total expenditures in expansion states only. Expansion group expenditures are 16% of total spending in all states and DC.SOURCE: KFF Analysis of Medicaid Budget and Expenditure System (MBES) enrollment reports as of June 2020 and FMR net expenditure data as of September 2020.
Appendix Table 3: Spending per Enrollee, FY 2019
StateExpansion StatusTotal Spending per EnrolleeTraditional GroupExpansion Group
United States7,9108,3706,1102
AlabamaNot Adopted5,6805,680N/A
AlaskaAdopted10,11010,5708,720
ArizonaAdopted7,0006,8407,560
ArkansasAdopted7,8508,4106,580
CaliforniaAdopted6,8207,4805,260
ColoradoAdopted7,1408,5704,080
ConnecticutAdopted8,5508,7208,110
DelawareAdopted10,23011,3907,370
District of ColumbiaAdopted11,07016,1104,040
FloridaNot Adopted6,2906,290N/A
GeorgiaNot Adopted5,5205,520N/A
HawaiiAdopted6,8707,9005,010
Idaho1Not Adopted7,0507,050N/A
IllinoisAdopted6,7206,2608,030
IndianaAdopted9,3109,7307,940
IowaAdopted8,5709,5906,020
KansasNot Adopted9,6209,620N/A
KentuckyAdopted7,8608,5206,620
LouisianaAdopted6,9307,2606,170
Maine2Adopted10,62011,3804,170
MarylandAdopted9,5409,8108,740
MassachusettsAdopted9,87010,7206,390
MichiganAdopted7,4707,9306,350
MinnesotaAdopted11,59012,1509,110
MississippiNot Adopted8,1608,160N/A
Missouri1Not Adopted11,49011,490N/A
MontanaAdopted7,1507,1307,190
Nebraska1Not Adopted8,7208,720N/A
NevadaAdopted6,6306,9905,980
New HampshireAdopted10,67013,2504,590
New JerseyAdopted9,54011,3105,970
New MexicoAdopted6,2806,5405,690
New YorkAdopted9,44011,4005,090
North CarolinaNot Adopted6,2306,230N/A
North DakotaAdopted12,58012,64012,330
OhioAdopted8,0908,4106,840
Oklahoma1Not Adopted7,2907,290N/A
OregonAdopted9,75012,9206,360
PennsylvaniaAdopted11,18013,0806,060
Rhode IslandAdopted8,3708,9506,360
South CarolinaNot Adopted4,9704,970N/A
South DakotaNot Adopted8,5908,590N/A
TennesseeNot Adopted6,3606,360N/A
TexasNot Adopted9,4109,410N/A
Utah1Not Adopted9,3009,300N/A
VermontAdopted9,41012,1103,950
Virginia2Adopted7,3807,7905,600
WashingtonAdopted7,4607,3207,760
West VirginiaAdopted7,3808,1105,720
WisconsinNot Adopted7,7207,720N/A
WyomingNot Adopted10,06010,060N/A
NOTES: Totals may not sum due to rounding. 1. Idaho, Missouri, Nebraska, Oklahoma, and Utah have adopted Medicaid expansion due to successful ballots measures but have either implemented or plan to implement the expansion after FY 2019. 2. Due to Virginia and Maine implementing expansion in January 2019 (although Maine allowed for retroactive enrollment as early as July 2018), estimates of spending per enrollee for the expansion group are likely an underestimate.SOURCE: KFF Analysis of Medicaid Budget and Expenditure System (MBES) enrollment reports as of June 2020 and FMR net expenditure data as of September 2020.

Endnotes

  1. The match rate for the expansion group in FY 2019 was 93%; however, the data analyzed in this brief show that the federal government contributed about 90.5% of expansion spending in that year. This discrepancy is because the ACA initially provided the enhanced match rate only for beneficiaries made newly eligible for Medicaid under the law (these beneficiaries composed 89% of the expansion group in FY 2019). The ACA also provided additional federal funding for not newly eligible expansion enrollees, with match rates for this population increasing to 90% in CY 2020 and onward (the same year that the match rate for newly eligible expansion enrollees decreased to 90%). (For more details, see Understanding How States Access the ACA Enhanced Medicaid Match Rates.) Accounting corrections in the MBES data (where states corrected for over or under charging the federal government for Medicaid in prior years) may also contribute to the discrepancy in the federal share. ↩︎

The COVID-19 “Vaccination Line”: An Update on State Prioritization Plans

Published: Jan 11, 2021

More recent data on state priorities and phase of vaccine distribution is available.

With COVID-19 vaccine rollout already underway, states are still refining their priority groups, making updates based on new guidance, vaccine supply or distribution issues, and other factors. States first outlined preliminary approaches in October, when they released initial draft plans for vaccine distribution. Then, in early December, they further specified the very first groups to be targeted (Phase 1a), based in large part on initial Centers for Disease Control and Prevention (CDC) guidance, as we described here. But all of that was before the first vaccine was even authorized and any doses shipped. Now, there are two authorized vaccines in the U.S. that began to be delivered to states on December 14. Subsequently, the CDC provided additional guidance on the next groups to be vaccinated (Phases 1b and 1c, see Box).

We sought to gauge where states stand on prioritization and how they may differ from the latest CDC Advisory Committee on Immunization Practices (ACIP) recommendations (summarized below). We also identified where states are in their distribution timelines. It is important to note that state guidelines are fluid, with changes still ongoing. In addition, regardless of group prioritization, states are operating on different timelines so even those in the same priority order in different states may receive their vaccinations at different times. Finally, in many jurisdictions, states have further decentralized decisions about timelines to the local level, which has led to varying timelines of access within the same state.

Overall, we find states are increasingly diverging from CDC guidance and from each other, suggesting that access to COVID-19 vaccines in these first months of the U.S. vaccine campaign may depend a great deal on where one lives. In addition, timelines vary significantly across states, regardless of priority group, resulting in a vaccine roll-out labyrinth across the country.

CDC ACIP Recommendations for COVID-19 Vaccine Prioritization for Phase 1

Phase 1a:  health care workers and long-term care facility residents

Phase 1b:  persons aged ≥75 years and frontline essential workers (non–health care workers). ACIP classifies the following workers as frontline non–health care essential workers: first responders (including firefighters and police officers), corrections officers, food and agricultural workers, U.S. Postal Service workers, manufacturing workers, grocery store workers, public transit workers, and those who work in the education sector (teachers and support staff members), and child care workers.

Phase 1c: persons aged 65–74 years, persons aged 16–64 years with high-risk medical conditions, and any essential workers not included in Phase 1a or 1b. Essential worker sectors recommended for vaccination in Phase 1c include those in transportation and logistics, water and wastewater, food service, shelter and housing (e.g., construction), finance (e.g., bank tellers), information technology and communications, energy, legal, media, public safety (e.g., engineers), and public health workers.

We reviewed the latest information from all 50 states and the District of Columbia.  As of January 11, 2021, here is how they line up with ACIP recommendations and where they are in their vaccination timelines:

Findings

Priority Groups

  • Phase 1a: All states and DC are vaccinating health care workers and long-term care residents and staff in Phase 1a, as recommended by ACIP, though 16 states depart from ACIP in some way, primarily by including other groups:
  • 10 states include additional first responders beyond those working directly in health, such as law enforcement and/or fire personnel (Arkansas, Georgia, Indiana, Maryland, Massachusetts, Nevada, New Hampshire, South Dakota, Virginia, and Wyoming).
  • 1 state (Utah) also includes K-12 and childcare personnel in the first priority group, while another (Louisiana) limits health care workers to hospital staff only (remaining health care workers are included in Phase 1b).
  • 4 states add seniors to their 1a phase priority groups, including people 65 and older in Georgia and Florida, 75 and older in Tennessee, and 80 and older in West Virginia.
  • 5 states include other vulnerable individuals in Phase 1a including 3 (D.C., New Jersey, and Ohio) that include psychiatric patients, 1 (Florida) that includes people deemed to be extremely vulnerable to COVID-19 by hospital providers, and 1 (Tennessee) that includes people who cannot live independently.
  • 2 states include those living in other congregate facilities (beyond long-term care residents) in this phase.  Massachusetts includes people who are incarcerated or homeless and New Jersey includes people who are incarcerated.
  • Phase 1b: Most states (44) have updated their Phase 1b priority groups, including 14 that follow ACIP recommendations exactly and 30 that depart in some way, primarily by including additional age groups. States have also prioritized educators and many include those living in congregate settings, such as people who are incarcerated or homeless:
  • 23 states expand the age band in this phase, most commonly for individuals 65 and older (ACIP recommends 75 and older) though one state (Alaska) includes those 55+.
  • A few states also include younger people in this phase who meet certain conditions. For example, Alaska includes people aged 16-54 in “unserved communities”, while Washington state includes people ages 50 to 69 that live in multigenerational households.
  • 18 states either expand (8) or limit (10) the categories of frontline essential workers compared to those recommended by ACIP. For example, Georgia includes all essential workers and Kansas also includes those who are in retail, warehouses, sales, and supplying critical materials for COVID response. Several states limit essential workers to educators (see below) and/or first responders.
  • States have also prioritized K-12 and childcare personnel, one of ACIP’s frontline worker categories for Phase 1b. In addition to the 15 states that follow ACIP’s recommendations and the 8 that expand upon these groups (and therefore include educators), 8 states that define a more limited group of frontline workers in this phase do include educators, sometimes as the only group of frontline workers or sometimes with one or two other groups. Only 3 states (New Jersey, New Hampshire, and Utah) do not include educators in Phase 1b (for Utah, they are included in 1a).
  • 12 states include people with high risk medical conditions in this phase (which ACIP includes in Phase 1c).
  • 2 states (Maryland and Ohio) include people with developmental disabilities in Phase 1b and 1 state (Montana) includes American Indians and other people of color at increased risk for COVID-19 complications.
  • Many states also include residents of other congregate living facilities – primarily corrections and homeless shelters – in Phase 1b (ACIP recommendations state that during Phase 1b, jurisdictions may choose to vaccinate residents of congregate living facilities at the same time as frontline staff due to their shared risk of disease). We found that 18 states do so in this phase.
  • Phase 1c: 33 states have updated their Phase 1c priority groups, 17 of which follow ACIP recommendations and 16 which differ. While many of those differences are due to the fact that ACIP-recommended 1c groups were included by many states in earlier phases, there are other differences even after accounting for this, including:
  • 6 states (California, Colorado, Kentucky, Montana, New Hampshire, and New Mexico) expand the age band compared to ACIP.
  • 4 states (Maryland, Montana, New Hampshire, and Tennessee) include a more limited set of essential workers than ACIP (even after accounting for their 1b groups).

Current Phase of Vaccine Distribution

We also assessed where states were in their vaccine distribution timeline, almost one month out from when doses were first shipped. Most states (40) are still in Phase 1a overall, or for a subset of counties within the state. 10 states and DC are in Phase 1b.  Only 1 state (Michigan) has moved to at least part of Phase 1c.

Summary

Even as many states are following CDC ACIP guidance for determining their COVID-19 vaccine priority groups, more are beginning to diverge from federal guidance and from one another. This is especially true as states look to transition beyond Phase 1a and face the challenges of operationalizing broader COVID-19 vaccination. Most of these divergences involve age, with many states moving to include expanded age groups earlier than recommended by ACIP.

In some cases, states are broadening and simplifying the priority groups. But, in other cases, states are creating new and more complex priority groupings. As with many decisions regarding how best to respond to the pandemic, there are trade-offs here. Identifying specific priority groups may more effectively target a limited supply of vaccines, but also lead to greater difficulty in implementing vaccine distribution plans and make it harder to communicate those plans to the public. Because of these differences, for this next period, a person’s place in the COVID-19 vaccine priority line will increasingly depend on where they live.

Table

Table 1: State COVID-19 Vaccine Prioritization and Phase of Vaccine Distribution, as of January 11, 2021

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News Release

New Analysis Takes In-Depth Look at How States are Prioritizing Who Gets a COVID-19 Vaccine

State-by-State Data Reveals Range of Early Approaches to Managing “Vaccination Line” and Many States Departing from CDC Recommendations

Published: Jan 11, 2021

A new KFF analysis examines the different approaches states are taking to manage the limited initial supply of COVID-19 vaccines and balance the desire to vaccinate those at greatest risk first with the need to ensure a fast and effective statewide vaccination effort.

Based on a review of state vaccination plans, the analysis finds that states are increasingly departing from the Centers for Disease Control and Prevention’s recommendations as they move through the first three phases of distribution (known as Phases 1a, 1b and 1c).

Key findings include:

  • All states and the District of Columbia are prioritizing health care workers and long-term care residents and staff in Phase 1a of their plans as recommended, though 16 states depart from the recommendations in some way. This includes 10 states that are prioritizing law enforcement and/or other first responders in the initial group, and one state (Utah) that is vaccinating K-12 and childcare workers.
  • Of the 44 states that have updated their Phase 1b priority groups, 14 follow the CDC’s recommendations exactly and will prioritize people ages 75 and older and frontline essential workers outside of health care, including first responders, corrections officers, food and agriculture workers, postal workers, manufacturing workers, grocery store workers, public transit workers, teachers and education support staff, and child care workers.
  • Among the 30 states that depart from the Phase 1b recommendations, 23 include a broader range of older residents (generally ages 65 and older), 18 use modified definitions for eligible frontline workers, including several that limit frontline workers to educators and/or first responders. Many also include those in other congregate settings, particularly people who are incarcerated and homeless, in their priority groups.
  • Of the 33 states that have updated their Phase 1c priority groups, 17 follow the CDC’s recommendation to prioritize people ages 65-74, younger people with high-risk medical conditions, and any essential workers not included in earlier phases. In most cases, the variations stem from decisions to include some groups earlier in the vaccination line, though some states expanded the age groups and/or narrowed the definition of essential workers in Phase 1c.
  • Most states (40) still remain in Phase 1a of their vaccine roll-out overall or for some counties within the state; only 10 states and the District of Columbia have moved into vaccinating those in Phase 1b.

The analysis concludes that identifying specific priority groups may more effectively target a limited supply of vaccines, but may also lead to greater difficulty in implementing vaccine distribution plans and make it harder to communicate those plans to the public. The growing variations across states suggest that a person’s place in the COVID-19 vaccine priority line will increasingly depend on where they live.

The analysis includes a data table showing how each state is prioritizing vaccination efforts in these early phases. KFF will update this data as states reveal, clarify and revise their prioritization plans.

This Week in Coronavirus: January 1 to January 7

Published: Jan 8, 2021

Here’s our recap of the past week in the coronavirus pandemic from our tracking, policy analysis, polling, and journalism.

It’s a new year, and while Democrats won control of the U.S. Senate with the results of the Georgia runoff elections and lawmakers dealt with the riot on the Capitol during Electoral College certification, the pandemic raged on. Three days this week broke records for daily new COVID-19 cases and deaths in the U.S. Total U.S. cases surpassed 21.5 million, and there were nearly 1.6 million new cases and about 19,300 new deaths.

A new analysis of KFF COVID-19 Vaccine Monitor survey data finds that residents of rural America stand out as one of the groups most hesitant to get a COVID-19 vaccine, and that their views on the pandemic could pose significant challenges for the nation’s mass vaccination effort. Half of rural residents (50%) say they believe the threat COVID-19 poses has been “generally exaggerated” in the news, a belief held by fewer urban (27%) and suburban (37%) residents.

The nation’s vaccination efforts have been challenging. KHN’s “What the Health?” podcast explores the problems and strategic errors from many angles, and looks at what the Biden administration might do to speed up the effort.

With the pandemic taking a heavy toll among older Americans, the Centers for Disease Control and Prevention and most states have placed a high priority on vaccinating residents and staff of long-term care facilities. KFF will hold an interactive web event at noon ET on Thursday, January 14 to provide the latest data on COVID-19 cases and deaths in long-term care facilities and examine how the effort to vaccinate residents and staff in long-term care settings is going, challenges experienced so far, and opportunities for improvement.

Here are the latest coronavirus stats from KFF’s tracking resources:

Global Cases and Deaths: Total cases worldwide reached 88 million this week – with an increase of 4.6 million new confirmed cases in the past seven days. There were approximately 80,300 new confirmed deaths worldwide, bringing the total for confirmed deaths to nearly 1.9 million.

U.S. Cases and Deaths: Total confirmed cases in the U.S. reached nearly 21.6 million this week. There was an increase of nearly 1.6 million confirmed cases between Dec. 31 and Jan. 7. Approximately 19,300 confirmed deaths in the past week brought the total in the United States to 365,200.

State Reports of Long-Term Care Facility Cases and Deaths Related to COVID-19 (Includes Washington D.C.) as of 1/5

  • Data Reporting Status: 50 states and DC are reporting COVID-19 data in long-term care facilities
  • Long-term care facilities with known cases: 30,802 (across 49 states and DC)
  • Cases in long-term care facilities: 1,101,783 (across 49 states and DC)
  • Deaths in long-term care facilities: 131,178 (across 50 states and DC)
  • Long-term care facility cases as a share of total state cases: 6% (across 49 states and DC)
  • Long-term care facility deaths as a share of total state deaths: 38% (across 50 states and DC)

State Social Distancing Actions (includes Washington D.C.) that went into effect this week:

Extensions: AR, FL, GA, ID, IN, IA, NM, NC, OH, SC, WA, WY

Rollbacks: CO, MN, ND, OR, PA, WY

The latest KFF COVID-19 resources:

  • January 14 Web Event: A Shot in the Arm For Long-Term Care Facilities? Early Lessons from the COVID-19 Vaccine Rollout to High Priority Populations (Event)
  • Updated: At-Home SARS-CoV-2 Testing: What Are the Options? (Interactive)
  • Vaccine Hesitancy in Rural America (News Release, Poll Finding)
  • Global Funding Across U.S. COVID-19 Supplemental Funding Bills (Issue Brief)
  • Updated: COVID-19 Coronavirus Tracker – Updated as of January 8 (Interactive)
  • Updated: State Data and Policy Actions to Address Coronavirus (Interactive)

The latest KHN COVID-19 stories:

  • Covid ‘Decimated Our Staff’ as the Pandemic Ravages Health Workers of Color in US (KHN, The Guardian)
  • Eureka! Two Vaccines Work — But What About the Also-Rans in the Pharma Arms Race? (KHN, Daily Beast)
  • Heading Off the Next Pandemic (KHN, Daily Beast)
  • ‘Last Responders’ Brace for Surge in Covid Deaths Across US (KHN, CNN)
  • Lost on the Frontline: New This Week (KHN, The Guardian)
  • Children’s Hospitals Grapple With Wave of Mental Illness (KHN)
  • San Francisco Wrestles With Drug Approach as Death and Chaos Engulf Tenderloin (KHN, Los Angeles Times)
  • Analysis: Some Said the Vaccine Rollout Would Be a ‘Nightmare.’ They Were Right. (KHN, New York Times)
  • In Fast-Moving Pandemic, Health Officials Try to Change Minds at Warp Speed (KHN, Great Falls Tribune)
  • Live Free or Die if You Must, Say Colorado Urbanites — But Not in My Hospital (KHN, Denver Post)
  • Video: The Healthy Nurse Who Died at 40 on the Covid Front Lines: ‘She Was the Best Mom I Ever Had’ (KHN)
  • As the Vulnerable Wait, Some Political Leaders’ Spouses Get Covid Vaccines (KHN, CNN)
  • Do-It-Yourself Contact Tracing Is a ‘Last Resort’ in Communities Besieged by Covid (KHN, NPR)
  • In Los Angeles and Beyond, Oxygen Is the Latest Covid Bottleneck (KHN, NBC News)
  • ‘Peer Respites’ Provide an Alternative to Psychiatric Wards During Pandemic (CHL)
  • San Francisco Wrestles With Drug Approach as Death and Chaos Engulf Tenderloin (KHN, Los Angeles Times)
  • Listen: How Operation Warp Speed Became a Slow Walk (KHN, Diane Rehm: On My Mind Podcast)

Global Health Funding in the FY 2021 Omnibus

Published: Jan 8, 2021

The FY 2021 omnibus appropriations bill (and accompanying reports), released by Congress on December 21, 2020, includes funding for U.S. global health programs at the State Department, the U.S. Agency for International Development (USAID), the Centers for Disease Control and Prevention (CDC), and the National Institutes of Health (NIH).[i] The bill also includes funding for Coronavirus relief efforts, including $4 billion for Gavi, the Vaccine Alliance (see the KFF analysis of global funding included in the five COVID-19 supplemental funding bills here). Key highlights from the FY21 appropriations bill are as follows (see table for additional detail):

State Department & USAID:

  • Funding for global health programs, through the Global Health Programs (GHP) account, which represents the bulk of global health assistance, totals $9.2 billion, an increase of $104 million above the FY20 enacted level and $3.2 billion above the President’s FY21 request. Funding for tuberculosis, maternal and child health (including funding for polio), and global health security were the only areas that increased in FY21 compared to the prior year level; global health security accounted for most of this increase.
  • Bilateral HIV funding through the President’s Emergency Plan for AIDS Relief (PEPFAR) is $4,700 million, matching the FY20 enacted level, but $1,520 million (48%) above the FY21 request ($3,180 million).
  • The bill includes $1,560 million as the U.S. contribution to the Global Fund to Fight AIDS, Tuberculosis and Malaria (Global Fund), matching the FY20 enacted level, and $902 million (137%) above the FY21 request ($658 million). The bill states that this amount is for the second installment of the sixth replenishment.
  • Funding for tuberculosis (TB) totals $319 million, $9 million (3%) above the FY20 enacted level ($310 million), and $44 million (16%) above the FY21 request ($319 million).
  • Funding for malaria totals $770 million, matching the FY20 enacted level, and $61.5 million (8%) above the FY21 request ($708.5 million).
  • The bill includes $855.5 million for maternal and child health (MCH), an increase of $4.5 million (<1%) above the FY20 enacted level ($851 million), and $196 million (30%) above the FY21 request ($660 million). Specific areas under MCH include:
    • Gavi, the Vaccine Alliance funding totals $290 million, matching the FY20 enacted and FY21 request level.
    • Polio funding through all accounts totals $65 million, $4 million (7%) above the FY20 enacted level ($61 million). The President’s FY21 request did specify a funding amount for polio.
    • The bill includes $139.0 million for the U.S. contribution to the United Nations Children’s Fund (UNICEF) provided through the International Organizations and Programs (IO&P) account, matching the FY20 enacted level. The President’s FY21 request did not specify a funding amount for UNICEF.
  • Funding for nutrition totals $150 million, matching the FY20 enacted level, and $60 million (67%) above the FY21 request ($90 million).
  • Bilateral family planning and reproductive health (FP/RH) funding totals $575 million ($524 million through the GHP account and $51 million through the ESF account), matching the FY20 enacted level, and $287 million (121%) above the FY21 request ($237 million).
  • Funding for the United Nations Population Fund (UNFPA) totals $32.5 million, matching the FY20 enacted level; the FY21 request proposed eliminating funding for UNFPA.
  • Funding for the vulnerable children program totals $25 million, matching the FY20 enacted level; the FY21 request proposed eliminating funding for this program.
  • Funding for neglected tropical diseases (NTDs) totals $102.5 million, matching the FY20 enacted level, and $27.5 million (37%) above the FY21 request ($75 million).
  • Funding for global health security totals $190 million in the bill, accounting for the largest increase in funding for all program areas compared to FY20 enacted levels. Funding in the FY21 omnibus bill is $90 million (90%) above the FY20 enacted level ($100 million), and $100 million (111%) above the FY21 request ($90 million).

Centers for Disease Control and Prevention (CDC): Funding for global health provided to the CDC totals $593 million, an increase of $22 million (4%) compared to the FY20 enacted level ($571 million) and $61 million (11%) above the FY21 request ($532 million). Funding for tuberculosis and global health security were the only areas that increased in FY21 compared to the prior year level, with global health security accounting for most of this increase.

Fogarty International Center (FIC): Funding for the Fogarty International Center (FIC) at the National Institutes of Health (NIH) totaled $84 million, $3 million (4%) above the FY20 enacted level ($81 million) and $10.5 million (14%) above the FY21 request ($73.5 million).

Resources:

  • “Consolidated Appropriations Act, 2021” – Bill Text
  • FY2021 Department of State, Foreign Operations, and Related Programs (SFOPs) Appropriations – Explanatory Statement
  • FY2021 Department of Labor, Health and Human Services, and Education, and Related Agencies (Labor HHS) Appropriations – Explanatory Statement

The table (.xls) below compares global health funding in the FY 2021 omnibus bill compared to the FY 2020 enacted funding amounts as outlined in the “Consolidated Appropriations Act, 2020” (P.L. 116-44; KFF summary here) and the President’s FY 2021 request (KFF summary here).

See the KFF budget tracker for details on historical annual appropriations, including Senate and House amounts, for global health programs.

 

Table: KFF Analysis of FY21 Omnibus Appropriations for Global Health
Department / Agency / AreaFY20 Enacted(millions)FY21Requesti(millions)FY21Omnibus(millions)Difference(millions)
FY21 Omnibus– FY20 EnactedFY21 Omnibus– FY21 Request
State, Foreign Operations, and Related Programs (SFOPs) – Global Health
HIV/AIDS$4,700.0$3,180.3$4,700.0$0 (0%)$1519.7 (47.8%)
State Department$4,370.0$3,180.3$4,370.0$0(0%)$1189.7(37.4%)
USAID$330.0$0.0$330.0$0(0%)$330.0(NA)
of which Microbicides$45.0$0.0$45.0$0(0%)$45.0(NA)
Global Fund$1,560.0$657.6$1,560.0$0 (0%)$902.4 (137.2%)
Tuberculosisii –  – –
Global Health Programs (GHP) account$310.0$275.0$319.0$9(2.9%)$44(16%)
Economic Support Fund (ESF) accountNot specifiedNot specifiedNot specified – –
Malaria$770.0$708.5$770.0$0 (0%)$61.5 (8.7%)
Maternal & Child Health (MCH)iiiiv – –
GHP accountv$851.0$659.6$855.5$4.5(0.5%)$195.9(29.7%)
of which Gavi$290.0$290.0$290.0$0(0%)$0(0%)
of which Poliov$61.0Not specified$65.0$4(6.6%) –
UNICEFvi$139.0Not specified$139.0$0(0%) –
ESF accountNot specifiedNot specifiedNot specified – –
of which PoliovvNot specifiedNot specified – –
Nutritionvii – – –
GHP account$150.0$90.0$150.0$0(0%)$60(66.7%)
ESF accountNot specifiedNot specifiedNot specified – –
Family Planning & Reproductive Health (FP/RH)viii$607.5 –$607.5$0 (0%) –
Bilateral FPRHviii$575.0 –$575.0$0(0%) –
GHP accountviii$524.0$237.0$524.0$0(0%)$287(121.1%)
ESF accountviii$51.1Not specified$51.1$0(0%) –
UNFPAix$32.5$0.0$32.5$0(0%)$32.5(NA)
Vulnerable Children$25.0$0.0$25.0$0 (0%)$25.0(NA)
Neglected Tropical Diseases (NTDs)$102.5$75.0$102.5$0 (0%)$27.5 (36.7%)
Global Health Security$100.0$90.0$190.0$90 (90%)$100 (111.1%)
GHP account$100.0$90.0$190.0$90(90%)$100(111.1%)
Emergency Reserve Fundx$25.0x – –
SFOPs Total (GHP account only)$9,092.5$5,998.0$9,196.0$103.5 (1.1%)$3198 (53.3%)
Labor Health & Human Services (Labor HHS)
Centers for Disease Control & Prevention (CDC) – Total Global Health$570.8$532.2$592.8$22 (3.8%)$60.6 (11.4%)
Global HIV/AIDS$128.4$69.5$128.4$0(0%)$58.9(84.6%)
Global Tuberculosisxi$7.2$7.2$9.2$2(27.4%)$2(27.4%)
Global Immunization$226.0$206.0$226.0$0(0%)$20(9.7%)
Polio$176.0$165.0$176.0$0(0%)$11(6.7%)
Other Global Vaccines/Measles$50.0$41.0$50.0$0(0%)$9(22%)
Parasitic Diseases$26.0$24.5$26.0$0(0%)$1.5(6.3%)
Global Public Health Protection$183.2$225.0$203.2$20(10.9%)$-21.8(-9.7%)
Global Disease Detection and Emergency Response$173.4Not specified$193.4$20(11.5%) –
of which Global Health Security (GHS)$125.0$175.0Not specified – –
Global Public Health Capacity Development$9.8Not specified$9.8$0(0%) –
National Institutes of Health (NIH) – Total Global HealthNot specifiedNot specifiedNot specified – –
HIV/AIDSNot specifiedNot specifiedNot specified – –
Malaria$208.0Not specifiedNot specified – –
Fogarty International Center (FIC)$80.8$73.5$84.0$3.3(4.1%)$10.5(14.3%)
Notes:
i – In the FY21 Request, the administration proposed to consolidate the Development Assistance (DA), Economic Support Fund (ESF), the Assistance for Europe, Eurasia, and Central Asia (AEECA), and the Democracy Fund (DF) accounts in to one new account — the Economic Support and Development Fund (ESDF). ESF funding for the FY21 Request reflects the amounts requested by the administration for ESDF.
ii – Some tuberculosis funding is provided under the ESF account, which is not earmarked by Congress in the annual appropriations bills and determined at the agency level (e.g. in FY18, TB funding under the ESF account totaled $4 million).
iii – Some MCH funding is provided under the ESF account, which is not earmarked by Congress in the annual appropriations bills and determined at the agency level (e.g. n FY18, MCH funding under the ESF account totaled $15.5 million).
iv – It is not possible to calculate total MCH funding in the FY21 request because UNICEF, which has historically received funding through the International Organizations and Programs (IO&P) account, was not specified in the FY21 request.
v – The minority summary of the FY20 conference agreement states that part of the increase in MCH funding is “due to a shift of $7.5 million for polio prevention programs from the Economic Support Fund account to the Global Health Programs account.”
vi – UNICEF funding in the FY20 Conference Agreement both include an earmark of $5 million for programs addressing female genital mutilation.
vii – Some nutrition funding is provided under the ESF account, which is not earmarked by Congress in the annual appropriations bills and determined at the agency level. (e.g. in FY17, nutrition funding under the ESF account totaled $21 million).
viii – The FY21 final bill states that “not less than $575,000,000 should be made available for family planning/reproductive health.”
ix – The FY20 and FY21 final bill texts state that if this funding is not provided to UNFPA it “shall be transferred to the ‘Global Health Programs’ account and shall be made available for family planning, maternal, and reproductive health activities.”
x – The explanatory statement accompanying the FY20 Conference Agreement states that the “agreement includes authority to reprogram $10,000,000 of Global Health Program funds to the Emergency Reserve Fund if necessary to replenish amounts used during fiscal year 2020 to respond to emerging health threats.” The FY21 final bill states that “up to $50,000,000 of the funds made available under the heading ‘Global Health Programs’ may be made available for the Emergency Reserve Fund.”
xi – In FY20, the administration proposed to formally transfer $7.2 million from the “HIV/AIDS, Viral Hepatitis, STI and TB Prevention” account to “Global Tuberculosis” activities under “Global Health Programs” at CDC. The FY20 conference agreement formalizes this transfer.

[i] Total funding for global health is not currently available as some funding provided through USAID, NIH, and DoD is not yet available.