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. 2022 Aug 2;27(1):344–357. doi: 10.1007/s10461-022-03771-w

Impact of the COVID-19 Pandemic on HIV Healthcare Service Engagement, Treatment Adherence, and Viral Suppression in the United States: A Systematic Literature Review

Diane Meyer 1,2,, Sarah E Slone 2,#, Oluwabunmi Ogungbe 2,#, Brenice Duroseau 2,#, Jason E Farley 2
PMCID: PMC9344234  PMID: 35916951

Abstract

The COVID-19 pandemic has necessitated adaptations in how healthcare services are rendered. However, it is unclear how these adaptations have impacted HIV healthcare services across the United States. We conducted a systematic review to assess the impacts of the pandemic on service engagement, treatment adherence, and viral suppression. We identified 26 total studies spanning the beginning of the pandemic (March 11, 2020) up until November 5, 2021. Studies were conducted at the national, state, and city levels and included representation from all four CDC HIV surveillance regions. Studies revealed varying impacts of the pandemic on HIV healthcare retention/engagement, medication adherence, and viral suppression rates, including decreases in HIV healthcare visits, provider cancellations, and inability to get prescription refills. Telehealth was critical to ensuring continued access to care and contributed to improved retention and engagement in some studies. Disparities existed in who had access to the resources needed for telehealth, as well as among populations living with HIV whose care was impacted by the pandemic.

Keywords: HIV, COVID-19, Viral suppression, Engagement in Care, Barriers to Care

Introduction

There are over 1.2 million people living with human immunodeficiency virus (PWH) in the United States (U.S.) [1]. Current treatment recommendations for PWH include initiation of care for those newly diagnosed, regular attendance of appointments with HIV providers, and antiretroviral therapy (ART) access and adherence [2]. These services are critical to reaching and maintaining viral suppression, which prevents HIV-associated morbidity and mortality and prevents further disease transmission [3]. Unfortunately, the Coronavirus 2019 (COVID-19) pandemic has led to widespread disruptions in the U.S. healthcare system and cancellation or postponement of preventive and routine healthcare appointments, including those that provide critical services to PWH [4]. These disruptions, coupled with pre-existing health inequities experienced by PWH including lack of transportation, limited access to technology, and poverty [5], could have a lasting impact on individual and community health. One modeling study predicted that disruptions in HIV-related services during the pandemic, including ART initiation and viral suppression, could lead to an additional 4.8 deaths in a population of 2000 HIV-infected men who have sex with men over a year in Baltimore, Maryland [6].

People with HIV are at high risk for pandemic-related disruptions because they require consistent and regular engagement with the healthcare system to maintain viral suppression [5]. There is also greater representation of people with socio-economically disadvantaged backgrounds, as well as over representation of minority communities, which may also influence health seeking behavior and engagement in care during the pandemic [7]. Barriers such as lack of access to the technology required for telemedicine and inability to travel to receive health services may disproportionately impact these individuals [5]. Additionally, PWH often suffer from other comorbidities that may increase their risk for COVID-19-related morbidity and mortality, and thus may be more fearful to attend in-person appointments, including laboratory appointments necessary to monitor their health [8].

The COVID-19 pandemic has necessitated several adaptations in how HIV services are rendered, such as massive upscaling of telemedicine, increased outreach by social workers, and increased use of mail-order pharmacies [9]. It remains to be seen how the transition of healthcare services during the pandemic has impacted access to and use of HIV healthcare services across the U.S. The objective of this systematic review is to synthesize existing literature to better our understanding of how the COVID-19 pandemic has impacted engagement and retention in HIV healthcare services, treatment adherence including ART access and utilization, as well as viral suppression for PWH in the U.S. Additionally, it aims to identify some of the unique and innovative strategies implemented during the pandemic to adapt HIV care models and maintain these critical services.

METHODS

This systematic review followed the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines (Supplementary Table 1) [10]. This review and protocol have been registered on PROSPERO (CRD42021249550).

Data sources

Electronic databases searched for this review were PubMed, Embase, the Cumulative Index to Nursing and Allied Health Literature (CINAHL), Web of Science, and PsycINFO. PubMed and Embase were used as they provide extensive access to the biomedical literature. CINAHL, Web of Science, and PsycINFO provided additional access to the nursing and allied health literature, behavioral and social science literature, and literature from other disciplines such as arts and humanities.

The search used a combination of PubMed Medical Subject Heading terms, including variations of ‘COVID-19’ and ‘HIV’ that were developed in consultation with a medical librarian and later adapted for CINAHL, Embase, Web of Science, and PsycINFO (Supplementary Table 2). The COVID-19 search string was modified from The Johns Hopkins University Welch Medical Library [11]. Additional search terms (e.g., “United States”) were added to narrow the focus of the review to the U.S. Searches of relevant organizational websites (e.g., the Centers for Disease Control and Prevention, National Institutes of Health) and of the grey literature (e.g., Google, Google Scholar) were also conducted to locate resources not identified in the database search. An initial search using the PubMed, CINAHL, and Embase databases was conducted on September 9, 2021. The same search was re-run prior to data analysis on November 5, 2021 to identify any newly published articles. The PsycINFO and Web of Science databases were later added (using a date cutoff of November 5, 2021) to capture any additional literature not identified in the previous databases.

Inclusion and exclusion criteria

Included studies were published in English-language journals and discussed impacts of the COVID-19 pandemic on retention and engagement in HIV healthcare services (e.g., changes in the number of clinic visits, non-attendance rates, etc.), treatment access and utilization (e.g., ART prescription refills, ability to obtain ART, treatment adherence, etc.), and viral suppression rates specific to PWH.

Exclusion criteria included articles that focused solely on healthcare access during the pandemic for PWH to treat conditions other than HIV (e.g., for hypertension, substance use, mental health disorders, etc.) or that only discussed HIV prevention (e.g., PrEP, condom use) or testing during the COVID-19 pandemic. “Calls to action”, notes from the field, or other types of commentaries or letters that provided anecdotal recommendations or data, such as discussion of changes made to HIV care models, but that did not either collect data from providers or patients or discuss the study methodology used were also excluded. Finally, the scope of this review was limited to only those studies published in the U.S. to allow for a more thorough and targeted understanding of the impacts of the pandemic on different regions of the US.

Study selection

Article titles and abstracts were divided up amongst research team members (DM, OO, BD, or SES) and screened independently for eligibility by two reviewers using the previously stated inclusion criteria. Articles included after title and abstract review were then reviewed at-length independently by two reviewers for study inclusion. Any discrepancies that arose between the two reviewers during title and abstract screening or full article review were discussed until consensus was reached. References of the included articles were also screened for relevance. Article screening and review was completed using the web-based software Covidence [12].

Data extraction

Data was independently extracted by four reviewers, in pairs of two (DM, OO, BD, or SES) using a survey created in Google Forms previously piloted by the research team. Any discrepancies that arose between the reviewers during data extraction were discussed until consensus was reached. Extracted data included study design; study outcome(s); study location; sample description; observable measures; time period of study data collection; data on retention or engagement in HIV healthcare services, medication adherence, and viral suppression; and adaptations in HIV healthcare delivery models made to overcome challenges introduced by the COVID-19 pandemic. After abstraction, studies were organized by the Centers for Disease Control (CDC) and Prevention HIV surveillance regions and by study sample characteristics (e.g., economically disadvantaged, older adults, etc.) to facilitate comparisons of COVID-19 impacts.

Quality of evidence assessment

The quality of evidence included in this review was assessed independently by two study researchers (DM, OO, BD, or SES) using the Mixed Methods Appraisal Tool (MMAT) [13]. This tool is designed to be used for systematic literature reviews that include studies with qualitative, quantitative, and mixed methods approaches [13]. Studies are assessed across five different criteria depending on the study type. These criteria include [13]:

  • Qualitative studies: adequacy of research approach used, adequacy of data collection, appropriate derivation of data, appropriate interpretation of data, coherence of data across sources.

  • Quantitative (randomized controlled trials) studies: appropriate randomization, comparability of groups at baseline, completeness of outcome data, blinding, adherence of participants to intervention.

  • Quantitative (non-randomized) studies: representativeness of the sample to target population, use of appropriate measurements, completeness of outcome data, accountment of confounders, intervention administered as intended.

  • Quantitative descriptive studies: relevance of sampling strategy, representativeness of the sample to target population, use of appropriate measurements, low risk for nonresponse bias, use of appropriate statistical analysis.

  • Mixed methods studies: adequate rationale for study design, appropriate integration of study components, appropriate interpretation of data, adequacy in addressing divergencies in study data, adherence to quality criteria for each method used.

Any discrepancies that arose between the two reviewers during the quality assessment process were discussed until consensus was reached.

Statistical analysis

Due to the heterogeneity of study data reported in this systematic review, a meta-analysis was not conducted. The results are instead presented according to thematic areas present across studies.

RESULTS

Study selection

In total, the five database searches yielded 908 articles. After de-duplication, a total of 607 article titles and abstracts were screened. Five hundred and twenty-three studies were excluded during title and abstract screening, and 84 underwent full text review. Two additional articles and one report were later screened that were identified through the search of organizational websites and grey literature and review of included article citations. In total, 26 articles were included in the review (Fig. 1).

Fig. 1.

Fig. 1

PRISMA flow diagram

From: Page MJ, McKenzie JE, Bossuyt PM, Boutron I, Hoffmann TC, Mulrow CD, et al. The PRISMA 2020 statement: an updated guideline for reporting systematic reviews. BMJ 2021;372:n71. doi: 10.1136/bmj.n71

Methodological quality of the included studies

Quality of evidence was assessed using the MMAT. The one qualitative study identified in this review met all five methodological quality criteria (Table 1). Of the twenty quantitative descriptive studies (Table 2), most used a relevant sampling strategy for the research question (95%), appropriate measurements (90%), and appropriate statistical analyses based on the research question (90%). Nearly three-quarters (70%) used a sample representative of the target population and 40% had a low risk for nonresponse bias. Of the five mixed methods studies (Table 3), all (100%) had rationale for using a mixed methods design and integrated and interpreted the different study components adequately. Over half (60%) of the studies addressed inconsistencies in the data and adhered to the criteria necessary for the methods utilized.

Table 1.

Description and quality of evidence assessment for qualitative studies (n = 1)

Quality of Evidence Assessmenta
Study Reference Sample, Sample Size, & Location Q1 Q2 Q3 Q4 Q5
Rhodes et al. (2021)

-Participants of the weCare intervention (n = 15)

-North Carolina

Y Y Y Y Y

aMixed Methods Assessment Tool questions:

Q1. Is the qualitative approach appropriate to answer the research question? Q2. Are the qualitative data collection methods adequate to address the research question? Q3. Are the findings adequately derived from the data? Q4. Is the interpretation of results sufficiently substantiated by data? Q5. Is there coherence between qualitative data sources, collection, analysis, and interpretation?

Legend: Y-yes, N-no, ?-unclear

Table 2.

Description and quality of evidence assessment for quantitative descriptive studies (n = 20)

Quality of Evidence Assessmenta
Study Reference Sample, Sample Size, & Location Q1 Q2 Q3 Q4 Q5
Algarin et al. (2020)

-Older adults enrolled in a clinical trial (n = 16 PWH)

-Miami, FL

N ? Y N Y
Bogart et al. (2021)

- Black Americans participating in an RCT (n = 101 PWH)

-Los Angeles County, CA

Y Y Y N Y
Chen et al. (2021)

-Black MSM and transgender women enrolled in an existing study (n = 90 HIV+, n = 132 HIV-)

-Chicago, IL

Y Y ? N Y
Cooley et al. (2021)

- Patients who were previous study enrollees (n = 133 HIV+, 54 HIV-)

-St. Louis, MO

Y Y ? N ?
El-Nahal et al. (2021)

-Patients enrolled in an HIV clinical cohort with a scheduled visit (Pre-C19 n = 2,010; during C19 n = 1,929)

-Baltimore, MD

Y Y Y Y Y
Ennis et al. (2021)

-Patients from community healthcare clinics living with or at risk for HIV (n = 4,280 HIV+, 593 HIV-; 11,006 encounters)

-Florida

Y Y Y Y Y
Fadul et al. (2021)

- Visits to an HIV clinic (n = 1,559 scheduled clinic visits, including new patients; 1,167 established patient visits)

-Nebraska

Y Y Y Y ?
Genberg et al. (2021)

- Members of the AIDS Linked to the IntraVenous Experience cohort (n = 144 HIV+, 295 HIV-)

-Baltimore, MD

Y Y Y Y Y
Hickey et al. (2021)

- Patients enrolled in POP-UP, a care model for PWH experiencing homelessness (n = 85)

-San Francisco, CA

Y ? Y Y Y
Hochstatter et al. (2020)

- PWH and substance use disorder at HIV clinics (pre-C19 n = 194 weekly surveys, 60 individuals; during C19, n = 148 weekly surveys, 43 individuals)

-Wisconsin

Y N Y ? Y
Kalichman et al. (2020)

- PWH (ages 20–37 years) who were also positive for active substance use (n = 162) and currently participating in an ART adherence study

-Atlanta, GA

Y Y Y Y Y
Kalichman et al. (2021)

- African American/Black MSM, recruited through social media and snowball sampling (n = 148 HIV + men, 338 HIV- men)

-Atlanta, GA

Y Y Y N Y
McGinnis et al. (2021)

- Members of the Veterans Aging Cohort Study living with HIV with at least one outpatient visit (n = 27,674 records)

-National

Y Y Y Y Y
McKay et al. (2021)

- LGBTQ individuals (age 18+) recruited on social media (n = 728 gay/bisexual men)

-National

Y Y Y N Y
Nguyen et al. (2021)

- Individuals (> 50 years of age) who identified as being HIV+ (n = 100)

-Palm Springs, CA

Y N Y N Y
Sanchez et al. (2020)

- Responses from the American Men’s Internet Survey (n = 1,051, 122 identified as HIV+)

-National

Y Y Y N Y
Sorbera et al. (2021)

- PWH who needed ART renewals or follow-up during C19 (n = 211 patients)

-Brooklyn, NY

Y Y Y Y Y
Spinelli et al. (2020)

- PWH on publicly funded insurance who attend a safety-net clinic (pre-C19 n = 4,153 visits; during C19 n = 1,997 visits)

-San Francisco, CA

Y Y Y ? Y
Tamargo et al. (2021)

- Participants from the Miami Adult Studies on HIV cohort (n = 183 HIV+, 116 HIV-)

-Miami, FL

Y Y Y ? Y
Wion & Miller (2021)

- PWH (ages 18+) recruited via social media platforms (n = 85)

-National

Y Y Y N Y

aMixed Methods Assessment Tool questions:

Q1. Is the sampling strategy relevant to address the research questions? Q2. Is the sample representative of the target population? Q3. Are the measurements appropriate? Q4. Is the risk of nonresponse bias low? Q5. Is the statistical analysis appropriate to answer the research question?

Legend: Y-yes, N-no, ?-unclear, C19-COVID-19, ART-anti-retroviral therapy, HIV-human immunodeficiency virus, PWH-people living with HIV, RCT-randomized controlled trial, MSM-men who have sex with men

Table 3.

Description and quality of evidence assessment for mixed methods studies (n = 5)

Quality of Evidence Assessmenta
Study Reference Sample, Sample Size, & Location Q1 Q2 Q3 Q4 Q5
Auchus et al. (2021)

-Patients at a HIV primary care clinic (n = 966 records, n = 202 surveys)

-San Francisco, CA

Y Y Y ? ?
Campbell et al. (2021)

-Message exchanges between PositiveLink members (n = 497 patients) and their care team (n = 6,668 exchanges)

-Virginia

Y Y Y Y Y
Dawson & Kates (2020)

- Directly funded Ryan White medical provider grantees (n = 161)

-National

Y Y Y ? N
Gwadz et al. (2021)

- African American/Black or Latino PWH from low-SES background participating in an existing study (n = 96 surveys, n = 26 interviews)

-New York City, NY

Y Y Y Y Y
Qiao et al. (2021)

- Ryan White clinics (n = 27)

-South Carolina

Y Y Y Y Y

aMixed Methods Assessment Tool questions:

Q1. Is there an adequate rationale for using a mixed methods design to address the research question? Q2. Are the different components of the study effectively integrated to answer the research question? Q3. Are the outputs of the integration of qualitative and quantitative components adequately interpreted? Q4. Are divergences and inconsistencies between quantitative and qualitative results adequately addressed? Q5. Do the different components of the study adhere to the quality criteria of each tradition of the methods involved?

Legend: Y-yes, N-no, ?-unclear, HIV-human immunodeficiency virus, PWH-people living with HIV, SES-social economic status

Studies characteristics

Descriptions of the study type, sample, sample size, and study location can be found in Tables 1-3 and Supplementary Table 3. Most articles (n = 20) were quantitative, non-experimental, descriptive studies and included cross-sectional and longitudinal surveys, a time series analysis, and retrospective reviews of electronic health records or other data sources. The articles also included mixed methods studies (n = 5) and one qualitative study. Studies were conducted at the city and state levels and included all four U.S. CDC National HIV Surveillance System regions. 38% of studies were conducted in the southern region of the U.S., which is also disproportionately impacted by HIV [14]. Five studies used data collected from a nationally representative sample.

Included studies primarily used convenience sampling and recruited participants from various sources. Several studies used survey responses or other data (e.g., from electronic health records, interviews) from participants who were previously or currently enrolled in clinical trials or other study cohorts or interventions (n = 12) [1526] or who were existing HIV clinic patients (n = 7) [2733]. Three studies recruited participants using social media [3436], one study used participants who completed an separate online survey that linked to a COVID-19 survey [37], and one study recruited participants using mailing lists [38]. Two studies utilized data provided by Ryan White clinics [9, 39].

Fifteen studies looked at the impacts of the pandemic within specific communities living with HIV, including those who identified as Black or LatinX [16, 18], identified as a member of the LGBTQ community or MSM [23, 34, 37], identified as Black MSM [26, 35], were of older age [19, 38], were economically disadvantaged [22, 24, 28], or those who reported substance use [21, 25, 30]. Of the other nine studies that reported participant data (e.g., excluding the two studies that used data provided by Ryan White clinics), seven included varying levels of representation across genders, sexual orientations, races, ethnicities, and other demographic factors [15, 17, 20, 29, 31, 32, 36]. Two did not provide a demographic overview of the study sample [27, 33].

Themes included impacts on retention and engagement in HIV healthcare services, challenges in filling or obtaining ART prescriptions, and changes in viral suppression rates. Table 4 provides a summary of the relevant findings of each article, organized by study sample characteristics. Supplementary Table 3 provides a more thorough database of specific findings and statistical tests, as they relate to the research questions of this systematic review.

Table 4.

Summary of Evidence by Study Sample Characteristics

Reference Region1 Summary of Findings Relevant to Research Question
HIV Service Providers
Dawson & Kates (2020) National Almost all (99%) Ryan White providers surveyed (n = 161) reported currently offering telehealth services, compared to only 22% prior to the pandemic. Other services provided included multi-month and mail-order prescription services. Providers reported increases in new and uninsured patients, reduced frequency of laboratory visits, and varied impacts on patient retention and ability to meet patients’ healthcare needs.
Qiao et al. (2021) South Over half (56%) of Ryan White clinic program reports analyzed (n = 27) reported partial interruptions in HIV services offered. Clinics reported reducing hours, limiting in-person appointments, stopping home visits and support groups, using telehealth, and assisting with medication pick-up. The severity of service interruption did not correspond to the density of C19 cases. Evidence suggested that areas with no HIV service interruptions had a higher percentage of insured individuals.
Minority Race and Ethnicities
Bogart et al. (2021) West Among a sample (n = 101) of Black PWH, participants reported cancelling appointments/avoiding care (18%), inability to get HIV medications (6%), and negative impacts on their HIV care or care for other health conditions (22%). Participants who reported more disruptions due to the pandemic (e.g., decreased work, decreased access to transportation) had lower odds of ART adherence.
Chen et al. (2021) Midwest Among a sample of Black MSM and transgender women enrolled in an existing study, those with HIV (n = 90) interviewed earlier in the pandemic (April-June, 2020) reported no significant difference in access to ART compared to those interviewed later (June-July, 2020). However, those exposed to interpersonal violence, who lost insurance, and who experienced a higher financial burden to travel had greater perceived difficulty in getting ART during the pandemic.
El-Nahal et al. (2021) South Amongst Black PWH enrolled in an HIV clinical cohort, participants reported a significant increase in visit completion during C19, compared to pre-C19.
Ennis et al. (2021) South Black and Hispanic patients of a community health clinic with HIV or at risk for HIV had lower odds of completing telehealth visits via video than White and non-Hispanic individuals.
Gwadz et al. (2021) Northeast A sample of African American/Black and Latino PWH (n = 96) reported cancellations of medical (69.8%) and social worker appointments (60.4%), avoidance of healthcare facilities (41.7%), and an inability to get to a pharmacy (13.5%) or their medications (9.4%). Over half reported an increased desire for ART adherence during C19, and 39.5% reported increasing how often they took their ART.
Kalichman et al. (2021) South Amongst a sample of African American/Black MSM, those with HIV were significantly more likely than those without HIV to report cancelling a doctor’s appointment or having an appointment cancelled by a clinic or doctor.
McGinnis et al. (2021) National Percentage of PWH who had virtual visits (≥ 1 visit) in 2019 and 2020 was similar across race (Black, White) and ethnicity (Hispanic, not Hispanic). While fewer VL tests were completed in 2020, the percentage of PWH who had VL measured was similar across race/ethnicities. ART coverage was similar across race/ethnicities for both years.
Spinelli et al. (2020) West In a sample of PWH who attend a safety-net clinic, younger (≤ 35 years) and Black patients had increased odds of viral nonsuppression both before and during C19.
Reported Gender/Sex
El-Nahal et al. (2021) South Amongst women living with HIV enrolled in an HIV clinical cohort, participants reported a significant increase in visit completion during C19, compared to pre-C19.
McGinnis et al. (2021) National Percentage of patients who had virtual visits (≥ 1 visit) in 2019 and 2020 was similar for men and women. Women were more likely to have virtual appointments (vs. in-person) and less likely than men to have VL measured for both years.
LGBTQ Community and MSM
McKay et al. (2021) National LGTBQ identifying men living with HIV were 55% more likely to report challenges in accessing healthcare during the pandemic than men who reported being HIV-negative.
Rhodes et al. (2021) South Among a small cohort of racially and ethnically diverse gay and bisexual MSM and transgender women living with HIV (n = 15), participants did not report interruptions in HIV care, but some did have challenges accessing other types of medical care. Participants were able to get their HIV medications but reported challenges in adherence.
Sanchez et al. (2020) National MSM living with HIV (n = 122) reported decreased access to HIV care and laboratory testing. A smaller percentage reported challenges with ART access and/or adherence.
Economically Disadvantaged Populations
Ennis et al. (2021) South Publicly insured patients of a community health clinic with HIV or at risk for HIV had lower odds of completing telehealth visits via video than those with private insurance.
Hickey et al. (2021) West Percentage of patients with a monthly visit and odds of viral suppression did not change significantly when comparing time periods during the pandemic to periods prior to the pandemic among 85 unstably housed individuals enrolled in a program to address HIV care barriers.
Spinelli et al. (2020) West In a sample of PWH who attend a safety-net clinic, those who attended via telephone had a reduced odds for no-show (compared to in-person) during C19. Patients had increased odds of viral nonsuppression during C19 compared to before C19. Those experiencing homelessness had higher odds of viral nonsuppression during C19.
Tamargo et al. (2021) South In a cohort of underserved PWH (n = 183), only 6% reported missing a clinic visit with an HIV service provider. A small percentage of PWH also reported avoiding pick up their ART (13.2%) and missing at least one dose of ART in the past month (8.2%) due to the pandemic.
Older Adults
Algarin et al. (2020) South Of a sample of older adults living with HIV (n = 16), all were able to receive their ART. Most individuals reported little impact on their ability to keep HIV care appointments or maintain contact with their case manager.
Ennis et al. (2021) South Older patients of a community health clinic with HIV or at risk for HIV had lower odds of completing telehealth visits via video than younger individuals.
Nguyen et al. (2021) West Impacts reported among a sample of older (≥ 50 years of age) PWH (n = 100) included inability to attend healthcare provider appointments (46%) and missed doses of HIV medications (24%). Those who reported an inability to attend provider appointments had greater odds of missing a dose of their HIV medications.
People Who Use Substances
Genberg et al. (2021) South Among PWID enrolled in a community-based cohort, 130 of 144 PWH reported being on ART. Of those, 86% reported having a 4-week supply and 94% had received information about how to get their medications during COVID-19 related restrictions.
Hochstatter et al. (2020) Midwest Percentage of PWH and substance use disorder who missed an ART dose ≥ 2 days of the week increased to 12% during C19, compared to 5% pre-C19. Confidence in one’s ability to keep next appointment with HIV provider decreased.
Kalichman et al. (2020) South Among a cohort of PWH enrolled in an ART study who tested positive for active substance use (n = 162), 19% reported missing an appointment with their HIV provider in the last month and 45% of them stated it was due to C19. 45% reported cancellations by a medical provider. Practicing greater C19 protective measures was significantly related to inability to access medications or get to a pharmacy.
Samples not restricted to specific characteristics 2
Auchus et al. (2021) West The percentage of appointments conducted via telehealth at a primary care clinic increased when comparing 2020 attendance to 2019. Nearly half of all participants (n = 202 PWH) preferred in-person appointments, and nearly a quarter reported being more likely to attend in-person (vs. virtual) visits.
Campbell et al. (2021) South There was a 25% increase during C19 in the number of messages exchanged using a mobile health intervention that provides health services to PWH. The mean member-sent and provider-sent message rate both increased significantly during C19 compared to pre-C19. The most common C19 related message topic was care coordination.
Cooley et al. (2021) Midwest PWH (n = 133) reported greater impacts of the pandemic on medical access than those without HIV (n = 54) amongst a sample of individuals who had previously been enrolled in research studies.
El-Nahal et al. (2021) South Amongst a sample of PWH enrolled in an HIV clinical cohort, participants reported a significant increase in visit completion during C19, compared to pre-C19.
Ennis et al. (2021) South Nearly all patients of a community health clinic with HIV or at risk for HIV completed scheduled telehealth visits via video. The odds of completing a video telehealth visit did not differ between PWH and those without HIV.
Fadul et al. (2021) Midwest Only 21% of scheduled visits were missed at an HIV clinic, and over a third of established patient visits (n = 1,167) were telemedicine visits (vs. in-person). The percentage of telemedicine vs. in-person visits did not differ within race, ethnicity, age, or gender categories. Higher VS rates were identified in those who attended visits via telehealth vs. in-person. There was a decrease in medical visit frequency and an increase in gaps in care.
McGinnis et al. (2021) National The number of virtual visits for all PWH enrolled in the Veterans Aging Cohort Study (n = 27,674) with ≥ 1 visit in 2019 or 2020 increased from 27% in 2019 to 64% in 2020. Nearly all these visits were conducted by telephone (vs. video). The percentage of patients who had their VL measured decreased in 2020; the percentage taking ART was similar for both years.
Sorbera et at. (2021) Northeast In a sample of 211 PWH at a primary care clinic, no significant change was identified in the percentage virally suppressed or with an undetectable viral load, when comparing a period during C19 to pre-C19. The percentage with CD4 cell counts > 200 cells/mm3 decreased from 92.6–78.3%.
Wion & Miller (2021) National In general, participants (n = 85 PWH) recruited via social media reported moderate to high confidence that they could contact their HIV provider or pharmacy, if required. Decreases were reported in access to social support groups and overall HIV self-management, when comparing during to pre-pandemic.

1Regions used in CDC’s National HIV Surveillance System: Northeast (NE): CT, ME, MA, NH, NJ, NY, PA, RI, VT; Midwest (MW): IL, IN, IA, KS, MI, MN, MO, NE, ND, OH, SD, WI; South (S): AL, AR, DE, DC, FL, GA, KY, LA, MD, MS, NC, OK, SC, TN, TX, VA, WV; West (W): AK, AZ, CA, CO, HI, ID, MT, NV, NM, OR, UT, WA, WY

2Includes studies that used participant data from HIV clinics or from other cohorts or interventions not limited by other demographic variables (e.g., not limited to MSM, certain race/ethnicities, etc.). Several studies listed in this section are also listed elsewhere in the table as the authors report results in aggregate and by selected demographic categories

HIV-Human Immunodeficiency Virus, PWH-people living with HIV, ART-antiretroviral therapy, MSM-men who have sex with men, C19-COVID-19, VL-viral load, VS-viral suppression

Retention and engagement in HIV healthcare services

Studies revealed decreased and missed HIV healthcare visits [18, 22, 25, 29, 35, 37, 38], cancellation of visits by healthcare providers [18, 22, 25, 35], changes in and difficulty accessing medical care [17, 21, 34], decreased confidence or ability to manage HIV care [30, 36], and an inability to access other support services such as social workers [18, 36]. These findings primarily came from participant-reported cross-sectional data and included studies conducted at the national level and from all four geographic regions. The percentage of studies reporting decreased or missed HIV healthcare visits or changes in PWH’s ability to attend visits ranged from 6% [22] to as high as 46% [38]. In the southern region, six of the seven studies that included quantitative data on HIV healthcare visits and challenges with care reported less than 20% of study participants had missed a scheduled HIV healthcare visit, did not complete a visit, or had challenges getting care [1922, 25, 31]. Two studies conducted in the midwest region had similar findings, with 13.5% of participants in one study reporting changes or loss in medical care [17] and 21% of scheduled HIV clinic visits in another study missed by patients [29]. Three studies in total—one each from the western, northeastern, and southern regions—reported missed or cancelled visits in approximately 45% of study participants [18, 35, 38]. Two of these studies were conducted in minority populations [18, 35].

Participants in three studies—two from the southern region and one from the northeastern region—reported having visits cancelled by their healthcare provider, ranging from 45% [25] to nearly 70% of respondents [18]. Several studies also captured PWH who themselves had cancelled or avoided healthcare due to the COVID-19 pandemic, including due to fear of contracting SARS-CoV-2, the virus that causes COVID-19 disease [16, 18, 35]. The percentage of respondents who reported cancelling/avoiding medical care due to the pandemic ranged from 18% [16] to 45% [35].

Two studies from the western region found no changes in HIV healthcare visits when comparing time periods during the pandemic to time periods previous to the pandemic [24, 28]. For example, Hickey et al. (2021) found no significant difference when comparing the mean number of visits per month. Additionally, one retrospective review of patient data from the southern region found a statistically significant increase in visit completion during the pandemic (either in-person or telehealth) [20]. This included an increase in the percentage of women and Black patients who completed visits, which was attributed in part to the increase in telehealth [20]. Ryan White providers reported anecdotal reductions in “no show” appointments and improved access to “hard to reach populations,” which many attributed to the increased use and availability of telehealth [9].

Telehealth, along with the use of other technologies, helped to ensure continued access to HIV services during the pandemic. There were increases in the number of clinics that offered telemedicine services and the percentage of appointments conducted via telemedicine, when comparing time periods before the pandemic to those during the pandemic [9, 15, 20, 27]. For example, one San Francisco HIV clinic conducted 86.9% of all appointments by telehealth from March to June 2020, compared to 5.3% from October 2019 to March 2020 [27]. Another technology that helped increase engagement during the pandemic included a mobile health intervention known as PositiveLinks that allowed sharing of messages between HIV providers and their patients [33].

Several studies that compared the impacts of COVID-19 within certain populations identified disparities in access to and engagement with healthcare services. Three studies found differences in the ability to engage with or access healthcare providers when comparing individuals with vs. without HIV [17, 34, 35], including in a population of Black/African American MSM [35] and amongst men who identified as LGBTQ [34]. For example, McKay et al., in a national study of members of the LGBTQ community, found that HIV positive men were 55% more likely to report challenges in accessing healthcare compared to HIV negative men [34]. Another study found disparities when comparing Black and LatinX patients to White patients, whom they found had a lower odds of completing video telehealth visits (vs. phone only) [31]. This study also found lower odds of completing video visits amongst older adults (compared to younger) and those on public insurance (compared to private)[31]. Another study found that ability to attend appointments via telephone, rather than in-person, improved the odds of visit completion amongst PWH who attended a safety-net clinic in California [28].

Disparities in which providers were impacted by COVID-19 related disruptions were also noted. Qiao et al. (2021) found evidence that less HIV service interruptions may have occurred in geographic areas with a higher percentage of insured individuals. Importantly, existing community-based interventions to improve HIV care engagement helped to ensure continuity of care during the pandemic, including for vulnerable communities such as those experiencing unstable housing [24, 28, 33].

Patient and provider perspectives on and challenges around the use of telehealth varied. Patient-reported advantages of telemedicine included that it was convenient [18, 27] and was safer as it reduced opportunity for SARS-CoV-2 transmission [27]. Disadvantages included lack of access to technology and technical challenges [18, 23, 27], unfamiliarity with using video platforms [27], and lack of human connection with the HIV service provider [18, 27]. Barriers around the use of telemedicine from the provider perspective included lack of patient access to technology [9, 29], challenges with reimbursement [9], and lack of clarity around telemedicine documentation and on which patients met criteria for the use of telemedicine [29]. Workarounds to these barriers included the designation of “telehealth champions”, the use of templates to guide workflows, and the use of telephone visits instead of video [29], as well as providing patients’ access to phone cards or data plans [9].

Challenges in filling or obtaining ART prescriptions

Studies also identified participants who reported having difficulties filling or obtaining their ART prescriptions and included a national study as well as studies from the southern, northeastern, midwestern, and western regions [16, 18, 22, 25, 26, 37]. These percentages ranged from between approximately 6–22% of respondents living with HIV [16, 18, 22, 25, 26, 37]. The largest percentage of individuals who reported difficulties in accessing ART was found in a sample of Black MSM and transgender women living in Chicago [26]. Studies also captured participant-reported missed ART doses [18, 22, 23, 30, 38]. For example, one study of PWH who reported alcohol/drug use found that 12% missed 2 or more ART doses during the week, compared to 5% before the pandemic [30]. The largest percentage of participants who reported missing ART doses was found in a cross-sectional survey of older adults (> 50 years of age) living with HIV, where 24% reported missing a dose [38]. Some of the reported reasons for missing ART doses in the literature included forgetting to take doses [38], disruptions in regular routines [23], and inability to get a prescription or get to a pharmacy [18, 25, 37]. Studies that assessed ART adherence or coverage identified only small decreases when comparing time periods during the pandemic to before the pandemic [15, 18, 37]. One study reported increased adherence to ART due to heightened fears of participant’s increased risk of COVID-19-related morbidity and mortality as a PWH [18].

Disparities were also noted in those who experienced interruptions in their ART regimen, and were particularly pronounced in individuals who experienced greater COVID-19 related impacts on their ability to work or travel [16, 26], were unable to attend healthcare appointments [38], or practiced stricter COVID-19 protective measures [25]. For example, Bogart et al. (2021) found that HIV patients who had experienced COVID-19 related disruptions to their employment, ability to pay rent, and ability to use public transportation had a 41% reduction in their odds of ART adherence. Kalichman et al. (2020) found that those who followed stricter COVID-19 protective measures reported more difficulty in getting their medications. One study also found that those who had been exposed to greater interpersonal violence also reported greater difficulties in obtaining their ART medications [26].

Providers took several measures to improve ART adherence during the pandemic. Some of these measures included extended or multi-month refills, mail-order pharmacy, and assistance with prescription pick-up [9, 29, 39], reaching out to patients on how to refill medications during COVID-19-related lockdowns [21], and regular adherence assessments by pharmacists [32].

Changes in viral suppression rates

Very few studies reported data on changes in viral suppression rates, when comparing time periods during the pandemic to periods before the pandemic. For the four studies that did, three found no significant difference in either the odds of viral suppression [24] or the proportion with viral suppression [15, 32]. Importantly, one of these studies was conducted on unhoused individuals who had access to a “low-barrier, high intensity HIV primary care program”, which likely mitigated the impact of the pandemic in this population [24]. However, while the percentage of those virally suppressed in this population did not change significantly during the pandemic (47%) vs. pre-pandemic (48%), rates were inadequate in both time periods [24]. Only one study found an increase in the odds of viral non-suppression when comparing the time periods [28]. This study also found higher odds of viral non-suppression in those experiencing homelessness during the pandemic compared to before the pandemic [28]. One study that compared viral suppression rates for those who attended visits via telephone vs. in-person during the pandemic found higher rates in those who could attend via telehealth [29].

DISCUSSION

This systematic review highlights how the COVID-19 pandemic has impacted retention and engagement in HIV services, ART adherence, and viral suppression rates for PWH in the U.S. Articles were identified from all four CDC HIV Surveillance System regions and indicate varying impacts of the pandemic within and across these regions. In the southern region, which has some of the highest rates of HIV diagnoses per 100,000 people [14], four of the studies identified in this review found minimal to no negative impacts on retention or engagement in healthcare services and medication adherence, and included studies conducted within older PWH [19], people who inject drugs [21], underserved populations [22], and an existing HIV cohort [20]. However, two studies found larger impacts on ability to attend HIV care appointments, including in Black MSM [35] and in people who were actively using substances [25]. Studies from the western, northeast, and midwest regions found some impacts within these areas, but again these differed by the city/state, how the participants were recruited, and how impacts within these areas were measured. Importantly, eleven studies identified disparities, such as by HIV status, race/ethnicity, age, income, housing status, and access to video telehealth, in those that were most impacted by COVID-19 related interruptions, and these disparities were found in studies from all but the northeastern region.

This review identified only four articles that compare pre-pandemic viral suppression rates to time periods during the pandemic. This may be due to the fact that impacts on viral suppression rates may take more time to appear clinically and be reported in the literature than the timeframe covered by this systematic review. While three of the studies that did look at changes in viral suppression rates found no significant changes [15, 24, 32], one did find a significant increase in the odds of viral nonsuppression after the initiation of shelter-in-place orders within PWH who utilize a safety-net clinic [28]. Data on changes in viral suppression rates, in addition to participant-reported incidences of missed or cancelled visits and challenges accessing ART, will be important to fully understanding the impacts of the pandemic on the long-term health of PWH. Additionally, data on HIV transmission rates will provide evidence as to whether pandemic-related changes in viral suppression rates led to increased disease transmission. This review also identified only two studies that addressed changes in visit frequency [24, 29], likely because most studies were conducted in the first year of the pandemic. Additional research looking at changes in the chronicity and frequency of visits during the duration of the pandemic will also be critical to fully understanding its impacts.

As the U.S. continues to experience waves of COVID-19 outbreaks, it will be critical that HIV providers, health systems, and policy makers understand the additional burdens that the pandemic puts on PWH. For example, syndemic health problems in PWH, such as substance use, mental health disorders, and malnutrition, coupled with the additional challenges introduced by the pandemic, put them at increased risk for adverse outcomes related to the pandemic [40]. Additionally, several studies in this review found that specific communities, including those experiencing homelessness [28], with substance use disorders [25, 30], who are of minority race/ethnicity [16, 18], MSM [23, 37], or who use public insurance or lost health insurance [26, 31], have suffered interruptions in HIV services during the pandemic. This is particularly concerning as those who experience social inequality, stigma, racism, and discrimination have been disproportionately impacted by the pandemic, and interruptions in HIV treatment may make them more susceptible to COVID-19 related morbidity and mortality [41].

Several adaptations in care models for PWH, including telemedicine, messaging applications, and mail order pharmacy, were highlighted in this review and have been critical interventions to ensure continuity of care during the pandemic. This is supported by several studies in this review which highlighted minimal impacts on retention/engagement in care and medication adherence. However, there are severe disparities in which communities have access to the resources needed to utilize telemedicine. For example, one study found that 41% of Medicare beneficiaries lacked access to a computer, 40.9% lacked access to a smartphone with a wireless data plan, and access was lower in Black and Hispanic populations, the elderly, and those on Medicaid [42]. Additionally, lack of human connection, lack of knowledge on how to use telemedicine, and increased risk for disclosure of personal information similarly indicate that telemedicine is not a panacea to replace in-person visits. It is critical that HIV service providers implement diverse and flexible strategies that are cognizant of the resources available to and comfort of their patients and that help ensure access to services as the country continues to confront the COVID-19 crisis. This will be particularly important due to the protracted nature of this pandemic, with ebbs and flows in hospitalization rates (and subsequent triggering of changes in clinic operating status) and in the economic impacts on communities which may limit access to or use of care. Furthermore, health systems must learn from their experiences providing care to these populations during this health emergency and incorporate them into preparedness plans to help ensure continued access to services during future public health emergencies.

This review is subject to several limitations. First, there remains the possibility that we omitted important and relevant articles. Second, the studies identified in this review relied primarily on patient reported interruptions in HIV services rather than clinical (e.g., viral suppression rates) or other data sources (e.g., clinic visit numbers). This increases the risk for bias (specifically, selection and recall bias) and decreases the generalizability of the data. Eleven studies also used data from patients previously or currently enrolled in studies or interventions, and these individuals may be systematically different than those who are not currently enrolled in a study. Additionally, the care received through these studies or interventions may not be representative of the standard or care experienced by other PWH across the U.S. Third, due to the protracted nature of the pandemic and the changing case numbers and subsequent impact on health systems, patient responses may have been only applicable to certain time periods within the pandemic. For example, this review was conducted prior to the emergence of the Omicron SARS-CoV-2 variant, which caused significant impacts on healthcare systems across the U.S. Differences in state responses (such as stay-at-home orders), as well as adaptations in service delivery by HIV clinics made early in the pandemic, may have also influenced which regions and populations were impacted. Finally, this review only included studies conducted in the U.S., and thus the results may not be generalizable to other countries.

However, there are several strengths of this study as well. First, the review adhered to rigorous PRISMA standards and was aided by an information specialist. Second, to our knowledge, this is the first systematic review that synthesizes data on pandemic-related impacts on HIV healthcare services in the U.S. We believe that this review provides an important snapshot of the impacts of the pandemic thus far on PWH, the challenges they have faced, and the changes providers have made to help ensure continued access to services.

Conclusions

This review suggests that COVID-19 has had varying impacts on HIV healthcare service delivery within and across CDC regions, and innovations in care delivery have been critical. Evidence also indicates that these innovations may improve access to and use of these services and should be maintained post-pandemic. Importantly, disparities were found to exist within certain communities in the magnitude of the impacts of the pandemic on HIV healthcare services that could lead to increased morbidity and mortality. It is critical that HIV service providers and health systems understand barriers faced by these communities and implement policy and practice changes that help ensure improved and continued access to care. Additional research will also be critical to better understand the impacts of interruptions in care on viral suppression rates. Disease surveillance will also help identify any impacts on HIV transmission rates. Finally, integrating these lessons learned into emergency preparedness plans will help reduce the impacts of future public health emergencies on the availability of services for PWH.

Electronic Supplementary Material

Below is the link to the electronic supplementary material.

Supplementary Material 1 (515.7KB, pdf)
Supplementary Material 2 (16.7KB, docx)
Supplementary Material 3 (37.2KB, docx)

Acknowledgements

The authors acknowledge information specialist, Stella Seal, Williams H. Welch Medical Library, Johns Hopkins Medicine, who curated the search strategy and performed the initial literature search.

Author’s Contributions

Conceptualization (Diane Meyer, Jason E. Farley), Data curation (Diane Meyer), Formal analysis (Diane Meyer, Sarah E. Slone, Oluwabunmi Ogungbe, Brenice Duroseau), Writing-original draft (Diane Meyer), Writing-review and editing (Diane Meyer, Sarah E. Slone, Oluwabunmi Ogungbe, Brenice Duroseau, Jason E. Farley).

Funding

The authors received no specific funding for this work.

Data Availability

All relevant data are within the manuscript and its supporting files.

Code Availability

Not applicable.

Declarations

Conflict of Interest

The authors have no conflicts of interest to declare.

Ethics Approval

Not applicable.

Consent to Participate

Not applicable.

Consent for Publication

Not Applicable.

Footnotes

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Sarah E. Slone, Oluwabunmi Ogungbe and Brenice Duroseau have contributed equally to this work.

Supplementary Information

The online version contains supplementary material available at 10.1007/s10461-022-03771-w.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Supplementary Materials

Supplementary Material 1 (515.7KB, pdf)
Supplementary Material 2 (16.7KB, docx)
Supplementary Material 3 (37.2KB, docx)

Data Availability Statement

All relevant data are within the manuscript and its supporting files.

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