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. Author manuscript; available in PMC: 2022 Oct 1.
Published in final edited form as: AIDS. 2021 Oct 1;35(12):1997–2005. doi: 10.1097/QAD.0000000000002987

Microfinance, retention in care, and mortality among patients enrolled in HIV care in East Africa

Becky L Genberg a, Marta G Wilson-Barthes b, Victor Omodi c, Joseph W Hogan c,d, Jon Steingrimsson d, Juddy Wachira c,e, Sonak Pastakia c,f, Dan N Tran c,g, Zana W Kiragu h, Laura J Ruhl c,i, Molly Rosenberg j, Sylvester Kimaiyo c, Omar Galárraga k
PMCID: PMC8963387  NIHMSID: NIHMS1786928  PMID: 34115646

Abstract

Objective:

To measure associations between participation in community-based microfinance groups, retention in HIV care, and death among people with HIV (PWH) in low-resource settings.

Design and methods:

We prospectively analyzed data from 3609 patients enrolled in an HIV care program in western Kenya. HIV patients who were eligible and chose to participate in a Group Integrated Savings for Health Empowerment (GISHE) microfinance group were matched 1 : 2 on age, sex, year of enrollment in HIV care, and location of initial HIV clinic visit to patients not participating in GISHE. Follow-up data were abstracted from medical records from January 2018 through February 2020. Logistic regression analysis examined associations between GISHE participation and two outcomes: retention in HIV care (i.e. >1 HIV care visit attended within 6 months prior to the end of follow-up) and death. Socioeconomic factors associated with HIV outcomes were included in adjusted models.

Results:

The study population was majority women (78.3%) with a median age of 37.4 Years. Microfinance group participants were more likely to be retained in care relative to HIV patients not participating in a microfinance group [adjusted odds ratio (aOR) = 1.31, 95% confidence interval (CI) 1.01–1.71; P = 0.046]. Participation in group microfinance was associated with a reduced odds of death during the follow-up period (aOR = 0.57, 95% CI 0.28–1.09; P = 0.105).

Conclusion:

Participation in group-based microfinance appears to be associated with better HIV treatment outcomes. A randomized trial is needed to assess whether microfinance groups can improve clinical and socioeconomic outcomes among PWH in similar settings.

Keywords: death, HIV, microfinance, poverty, retention in care, socioeconomic determinants of health, stigma

Introduction

Poverty shapes risk of HIV infection and drives HIV-treatment outcomes among people with HIV (PWH) in sub-Saharan Africa (SSA) [13]. PWH who are living in poverty face socioeconomic barriers to accessing and engaging in HIV care [2], including transport costs and long distances to health facilities, food insecurity, user fees at health facilities, and lack of community-based services [46]. Access barriers are heightened for rural populations living in remote locations where transportation fees are prohibitively high relative to income [7]. Because of these barriers, economically disadvantaged PWH may be more vulnerable to disease progression compared with patients with greater financial resources [2].

Microfinance services increase access to income-generating opportunities for marginalized populations who may otherwise be excluded from formal banking sectors [8]. By providing small loans and community savings to individuals in low-resource settings, microfinance interventions can improve HIV treatment outcomes by addressing poverty-related risk factors that threaten care engagement. Economic strengthening via microfinance can reduce food insecurity, a by-product of poverty, which in turn increases healthcare utilization and antiretroviral therapy (ART) adherence through nutritional and behavioural mechanisms [9]; increasing financial security can improve retention in HIV care by addressing barriers related to transportation costs and health facility fees [10,11]. Recent systematic reviews by Swann et al. [1] and Nadkarni et al. [12] show improved adherence to antiretroviral therapy [1,12], retention in care [1,12], and viral suppression [12] among PWH who participated in microfinance and income-generating activities at the individual-level, compared with PWH who did not. However, most studies reviewed did not account for potential differences between patients who participated in microfinance programs through randomization or other methods.

There is also minimal evidence as to whether group-level rather than individual-level microfinance can have a positive effect on HIV treatment outcomes. Offering microfinance within a group setting may be particularly beneficial for PWH [12,13], who experience frequent HIV-related stigma that can limit their ability to find work or access conventional forms of capital [14]. By meeting in the community, microfinance groups offer access to savings and loans without requiring individuals to travel long and costly distances to commercial hubs. Microfinance groups can further serve as a mechanism for social support when the majority or all of group members are PWH [15]. Groups with a majority of HIV-positive members can reduce or remove disease-related stigma and psychological barriers that threaten ART adherence [15,16]. Despite the potential for microfinance to improve the socioeconomic determinants of access and adherence to HIV care, the impact of group-based microfinance interventions on HIV outcomes is not yet understood.

This research aims to characterize the relationship between participation in group-based microfinance and retention in care and mortality among individuals enrolled in an HIV care program in western Kenya. We hypothesize that patients who participate in group-based microfinance in the community will be more engaged in HIV care and have reduced mortality compared with patients who are not enrolled in group microfinance. To the best of our knowledge, this will be among the first studies to utilize medical record data to prospectively assess associations between microfinance group participation and HIV treatment outcomes.

Methods

Study setting and design

We conducted a prospective analysis of patients enrolled in HIV care via the Academic Model Providing Access to Healthcare (AMPATH) program in western Kenya [17]. AMPATH is a partnership between Moi University, Moi Teaching and Referral Hospital, and North-American academic institutions whose mission is to improve care, train medical professionals, and advance research beyond the clinical setting to create opportunities for education and socioeconomic advancement. Since 2001, AMPATH has grown to provide care to over 165 000 active PWH across 800 clinical sites in Kenya [17]. AMPATH’s microfinance program, Group Integrated Savings for Health Empowerment (GISHE), was established in 2012 and follows the Village-Level Savings and Loan Associations model [18] where members of community-led groups manage their own savings, provide interest-bearing loans, and contribute to a social fund for emergency or social welfare issues. At group formation, members undergo training, draft a Constitution that stipulates group operations, and designate a treasurer to act as group leader. Members meet regularly (e.g. biweekly, monthly) and borrow based on need, with a focus on furthering income-generating activities. GISHE groups are constituted of 15–30 members who are predominately female (~81% female, 19% male) AMPATH patients [19]. The AMPATH care program refers patients to GISHE based on need.

Study population

This analysis included patients enrolled in HIV care at the Moi Teaching and Referral Hospital and other AMPATH-supported clinics in two counties: Uasin Gishu and Bungoma. Patients who were registered members of an AMPATH GISHE group as of January 2018 were matched 1 : 2 on age, sex, geographic location of initial clinic visit, and year of enrollment in HIV care to AMPATH patients who were not participating in GISHE in January 2018. To match on age and enrollment year, we used nonparametric nearest neighbor matching without replacement [20]. We used exact matching for categorical variables (Supplementary Table 1, http://links.lww.com/QAD/C193). Data for patients who were at least 18 years old in 2012 when the GISHE program began, and who had received any HIV care in 2018 at the start of data collection for this study, were abstracted from the AMPATH Medical Records System and included in the sampling frame (Fig. 1). Each patient’s geographic location was based on the site of their initial clinic visit to capture urban vs. rural locations. Follow-up data through 6 February 2020 was included in this analysis such that the maximum follow-up duration was 767 days.

Fig. 1. Study inclusion criteria and follow-up data collection timeline.

Fig. 1.

GISHE microfinance group participants were matched 1 : 2 on age, sex, year of enrollment in HIV care, and location of initial clinic visit to patients not participating in GISHE. GISHE, Group Integrated Savings for Health Empowerment.

Measures

The following data were captured by clinicians and recorded in AMPATH’s Medical Record System at the initial clinic visit during which a patient first enrolled in HIV care: age, sex, enrollment year, WHO disease stage, geographic location of initial HIV clinic visit, educational status, availability of electricity and running water in the home, number of people in the household, and travel time to the clinic. WHO disease stage was a four-level categorical variable reflecting the four clinical stages of HIV infection; location of initial HIV clinic visit was dichotomized as Moi Teaching and Referral Hospital or other AMPATH-supported facility; educational status was dichotomized to reflect whether or not a patient ever attended school; and self-reported travel time to the clinic was a categorical variable with the following four levels: less than 30 min, 30–60 min, 1–2 h, and more than 2 h. We calculated the length of time in care as the number of years from the date of a patient’s initial HIV clinic visit until database closure on 6 February 2020. Additional measures from routine clinical care were captured from AMPATH’s Medical Record System including ART start dates, clinical encounter dates, and scheduled return to clinic dates. Scheduled return to clinic dates were routinely scheduled every 3–6 months by providers during each HIV clinic appointment.

Outcomes

The primary outcomes in this analysis were retention in HIV care and death. We used a binary indicator of retention in HIV care where an individual was considered to be retained in care if they attended at least one HIV clinical care visit within the 6 months preceding the end of the follow-up period on 6 February 2020, and not retained in care otherwise. We defined retention in care based on established AMPATH care protocols where expected return to clinic dates are 3 months for patients on ART and 6 months for patients not on ART. This definition also aligns with similar research assessing retention in care among AMPATH patients living with HIV [21,22]. For patients retained in care, death during the follow-up period was determined from the AMPATH community tracking form and medical record data.

Statistical analysis

Pearson’s chi-square tests for categorical variables and analysis of variance tests for continuous variables were used to summarize and examine differences between GISHE and non-GISHE participants in terms of socio demographic and clinical characteristics. We examined the association between GISHE participation and both primary outcomes – retention in HIV care and death – separately using logistic regression analysis. Factors known to be associated with HIV treatment outcomes were considered for inclusion in the adjusted analysis. The covariates included in the final model were: age, sex, initial clinic visit location, year of enrollment, educational status, availability of electricity and water in the home, travel time to the clinic, and WHO disease stage. For the continuous age variable, cut points were assigned at 30 and 45 years based on visual inspection of the age distribution in the sample. Characteristics on which GISHE participants were matched to non-GISHE participants were included as covariates in the adjusted model in order to account for any residual confounding between groups. Results of adjusted models exclusive of the matching variables and inclusive of initial care adherence are presented in Supplementary Tables 2 and 3, http://links.lww.com/QAD/C193. Analyses were conducted using StataSE 15 (Stata Corp., College Station, Texas, USA) and R statistical software (R Foundation, Vienna, Austria).

Missing data

Across the entire sample, there were no missing data for retention in care given that patients with missing data for this outcome were by definition not retained in care. Ascertainment of death data was complete for those patients who were considered to be retained in care during the follow-up period up until the date of death. Fewer than 7% of data were missing for each of the covariates included in the final adjusted model. Covariates driving the missing data were travel time to the clinic (6.1% missing), educational status (4.3% missing), and presence of electricity and water in the home (4% missing). AMPATH has robust mechanisms for increasing the accuracy of data collected via its medical record system [23] and for following-up patients who miss clinic visits [24]. Thus, the chance of human error leading to missing data is minimal.

Role of the funding source

The research reported in this publication was supported by the National Institute of Mental Health of the National Institutes of Health under award number R01MH118075. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Institutes of Health.

Results

Study population characteristics

A total of 3609 patients receiving HIV care were included in this analysis (Table 1). The median age of the study population was 37.4 years [interquartile range (IQR): 31.1–44.7] and approximately three-quarters (78.3%) of patients were female. Nearly 90% of the population had ever attended any formal schooling and 15.1% had electricity and running water in the home. A total of 1203 patients who participated in GISHE as of January 2018 were matched to 2406 patients who had not participated in GISHE. Due to matching, GISHE and non-GISHE participants were similar with respect to age at enrollment, sex, location of initial HIV care visit, and year of enrollment in care. GISHE and non-GISHE participants were also similar with respect to WHO disease stage at enrollment and educational status. Compared with non-GISHE patients, GISHE participants had a larger household size, were less likely to have electricity and piped water in the home, and were more likely to travel up to 2 h to a health facility for care. On average, compared with non-GISHE patients, GISHE participants had more recently attended an HIV clinic appointment at the time of database closure on 6 February 2020 (2.7 compared with 3.2 months since last HIV clinic appointment, respectively).

Table 1.

Characteristics of 3609 patients receiving HIV Care in western Kenya, by participation in group-based microfinance.

Participated in GISHE (N = 1203) Did not participate in GISHE (N = 2406) P value
Sex [n (%)]
 Male 258 (21.4) 526 (21.9) 0.775
 Female 945 (78.6) 1880 (78.1)
Age at enrollment, mean (SD) 38 (9.8) 38.2 (10.1) 0.117
Year of enrollment [n (%)]
 Before 2010 902 (75) 1817 (75.5) 0.723
 2010 onward 301 (25) 589 (24.5)
WHO disease stage at enrollment [n (%)]
 Stage 1 522 (43.4) 1007 (42) 0.549
 Stage 2 312 (26) 598 (25)
 Stage 3 330 (27.5) 705 (29.4)
 Stage 4 38 (3.2) 85 (3.5)
Initial HIV clinical care visit at MTRH [n (%)]
 Yes 127 (10.6) 256 (10.6) 0.939
 No 1076 (89.4) 2150 (89.4)
Travel time to clinic [n (%)]
 < 30 min 350 (30.9) 672 (29.7) 0.04
 30–60 min 391 (34.6) 796 (35.2)
 1–2 h 296 (26.2) 538 (23.8)
 > 2 h 94 (8.3) 253 (11.2)
Ever attended school [n (%)]
 Yes 1013 (88.1) 2030 (88.1) 0.986
 No 137 (11.9) 274 (11.9)
Availability of electricity and running water in the home [n (%)]
 Yes 122 (10.5) 402 (17.4) <0.001
 No 1037 (89.5) 1904 (82.6)
Number of people in the household, mean (SD) 5.5 (2.7) 5 (2.5) <0.001
Initiated ART [n (%)]
 Yes 1202 (99.9) 2399 (99.7) 0.211
 No 1 (0.1) 7 (0.3)
Number of years on ART [mean (SD)] 10.7 (2.7) 10.7 (2.9) 0.918
Years in HIV care [mean (SD)] 11.6 (2.4) 11.6 (2.4) 0.71
Months since last viral load measurement [mean (SD)] 7.8 (4.4) 7.5 (4.3) 0.065
Months since last HIV care visit at database closure [mean (SD)] 2.7 (4.2) 3.2 (5) 0.003
Virally suppressed at first VL measure taken at the start of the follow up period [n (%)] 1028 (88.2) 1997 (87.2) 0.401
Virally suppressed at last VL measure taken prior to the end of the follow-up period [n (%)] 1114 (95.6) 2190 (95.7) 0.943

The follow-up data collection period for this analysis was from 1 January 2018 through 6 February 2020. ART, antiretroviral therapy; GISHE, Group Integrated Savings for Health Empowerment; MTRH, Moi Teaching and Referral Hospital; VL, viral load.

Retention in HIV care

In total, 3249 (90%) of all patients had attended at least 1 clinical HIV care visit within the 6 months preceding the end of the follow-up period. GISHE participants were more likely to be retained in care relative to patients who had not participated in GISHE [odds ratio (OR) = 1.44; 95% confidence interval (CI): 1.13–1.85)] (Table 2). After adjusting for relevant covariates (age, sex, WHO disease stage, initial clinic location, enrollment year, electricity and water in the home, travel time to the clinic, and educational status), the association between GISHE participation and retention in care was slightly attenuated but still positively associated (adjusted OR (aOR) = 1.31, 95% CI: 1.01–1.71). Patients who had been in HIV care for longer periods of time were 41% more likely to remain engaged in care relative to patients who had been engaged in care for fewer years (aOR = 1.41, 95% CI: 1.33–1.49). Older patients (those 30 years and older) and female patients were also more likely to be retained in HIV care. The odds of being retained in care did not differ between patients who had their initial HIV care visit at Moi Teaching and Referral Hospital or another AMPTH-supported facility (aOR = 1.0; 95% CI: 0.66–1.59).

Table 2.

Associations between microfinance group participation and retention in care and mortality among patients enrolled in HIV care in western Kenya.

Retention in care
Death
Unadjusted OR (95% CI) (N = 3609) Adjusted OR (95% CI) (N = 3339) Unadjusted OR (95% CI) (N = 3609) Adjusted OR (95% CI) (N = 3339)
Microfinance group participation (GISHE)
 No (ref) (ref) (ref) (ref)
 Yes 1.44 (1.13–1.85)** 1.31 (1.01–1.71)* 0.53 (0.27–0.97) 0.57 (0.28–1.09)
Sex
 Female (ref) (ref)
 Male 0.92 (0.69–1.23) 1.33 (0.69–2.45)
Age at enrolment
 ≤30 years (ref) (ref)
 31 –45 years 2.13 (1.6–2.84)*** 2.45 (0.95–8.33)
 >45 years 1.97 (1.39–2.8)*** 3.49 (1.22–12.54)*
Initial HIV clinical care visit at MTRH
 No (ref) (ref)
 Yes 1.0 (0.66–1.59) 1.66 (0.69–3.54)
Years in HIV care 1.41 (1.33–1.49)*** 0.94 (0.83–1.07)
Ever attended school
 No (ref) (ref)
 Yes 0.64 (0.42–0.96)* 2.54 (0.88–10.77)
Electricity and water in the home
 No (ref) (ref)
 Yes 1.39 (0.96–2.08) 0.92 (0.38–1.97)
Travel time to the clinic
 <30 min (ref) (ref)
 30–60 min 0.75 (0.55–1.01) 3.06 (1.38–7.73)**
 1–2 h 0.62 (0.45–0.87) 1.52 (0.56–4.32)
 >2 h 0.44 (0.29–0.67)*** 3.75 (1.41–10.52)**
WHO disease stage at enrollment
 Stage 1 (ref) (ref)
 Stage 2 1.0 (0.74–1.36) 0.94 (0.44–1.94)
 Stage 3 0.79 (0.60–1.06) 1.08 (0.54–2.11)
 Stage 4 0.86 (0.46–1.78) 1.77 (0.40–5.42)

Odds ratios represent the results of the logistic regression analysis conducted on the matched sample. CI, confidence interval; GISHE, Group Integrated Savings for Health Empowerment; MTRH, Moi Teaching and Referral Hospital; OR, odds ratio.

*

P less than 0.05.

**

P less than 0.01.

***

P less than 0.001.

Death

Between January 2018 and February 2020, a total of 57 patients (1.6%) died, 12 of whom were GISHE participants and 45 of whom were non-GISHE patients. GISHE participants were 47% less likely to die during the follow-up period relative to non-GISHE patients (OR = 0.53, 95% CI: 0.27–0.97) (Table 2). Adjusting for relevant covariates (age, sex, WHO disease stage, initial clinic location, enrollment year, electricity and water in the home, travel time to the clinic, and educational status), the relationship between GISHE participation and odds of death during follow-up was slightly attenuated such that the association was no longer statistically significant at the P less than 0.05 level, but was still inversely related (aOR = 0.57, 95% CI: 0.28–1.09). For matching covariates, odds of death increased for older patients (those 30 years and older), male patients, and those who had their initial HIV care visit at Moi Teaching and Referral Hospital. Odds of death were 6% lower among patients who had been in care for longer periods of time.

Discussion

This analysis found that participation in group-based microfinance was associated with better HIV-related outcomes among PWH in western Kenya. Patients who were enrolled in HIV care and participating in community-based microfinance groups had a 1.31 times higher odds of being retained in HIV care and a 0.57 times lower odds of dying during the follow-up period, compared with patients not participating in group microfinance.

The few studies that have assessed group microfinance show improved retention in HIV care and ART adherence among group members. One community and home-based care intervention in 14 Ethiopian cities found that, among clients participating in community savings and loan groups, 99% reported more than 95% ART adherence with a decline in annual mortality rates from 10 to 0.7% over the 4-year follow-up period [25]. An economic strengthening program in Ethiopia found that Village Savings and Loan groups increased the odds of having at least 95% ART adherence by a factor of 5.6 among microfinance group members [9]. Colombia’s IMEA Project – an intervention combining group microfinance and treatment adherence support for women with HIV/AIDS – was associated with increased ART adherence scores among microfinance members over 23 months, with mean scores increasing from 16.5 to 52.5 (P < 0.001) [10]. Despite their encouraging findings, these studies largely relied on participants’ self-report and included relatively small sample sizes. Thus, the current analysis strengthens the evidence-base supporting group microfinance for PWH by using objective medical record data to measure HIV outcomes among 3609 patients over 2 years.

In addition to poverty-reducing effects, there may be other mechanism(s) – such as social support – through which group microfinance improves outcomes [26]. Community-based social support has been significantly associated with improved retention (RR: 1.07, 95% CI 1.07–1.08) and reduced mortality (RR: 0.85, 95% CI 0.81–0.89) and loss to follow-up (RR: 0.75, 95% CI 0.72–0.78) among PWH in South Africa [27]. In addition to better ART adherence, microfinance group participants in the Okello et al. study [25] reported statistically significantly greater improvements in social relationships and their communal environment relative to controls. The ongoing Harambee cluster randomized trial in western Kenya [28] aims to address persistent gaps in this area by using mediation analysis to identify the complex mechanisms through which group microfinance and community-based care impact viral suppression.

In our analysis, the strongest predictors of disengagement from care were age, length of time in care, and travel time to a health facility. Younger age (i.e. age 18—30 years) is associated with attrition from HIV care due largely to the frequent mobility of this population [29,30]. Similarly, prior length of time in care forecasts the likelihood of remaining engaged in care in the medium to long-term. This signifies that young adulthood is a critical period for habituating HIV management habits. Just as concerted efforts are being put towards developing interventions that address the unique needs of adolescents living with HIV [31], targeted approaches for care engagement may need to be extended to young adulthood.

Findings from this analysis hold two important implications for public health programming. First, the UNAIDS 95–95–95 target (95% of PWH diagnosed, 95% of those diagnosed adhering to ART, 95% of those on ART being virally suppressed) [32] relies largely on allocating resources to rapidly scale up treatment for persons at high risk of and those currently living with HIV. Yet, increasing treatment alone will likely not be enough to achieve this target; SSA has the largest population of people living in extreme poverty and is projected to be home to 87% of the world’s poorest by 2030 [33]. This analysis and other recent work reinforces the urgency for community-level interventions that can address the socioeconomic and psychosocial drivers of vulnerability among PWH in order to improve access to care [3335]. Such interventions will need to be delivered in tandem with treatment scale-up initiatives if the world’s poorest poor are to be included in the 95–95–95 targets.

Second, health systems in SSA are increasingly strained by having to implement the WHO 2015 recommendations to ‘treat all’ with ART [36], and scale up treatment in advance of the UNAIDS 2030 target. These health systems have simultaneously had to adapt to be able to sustain care during the novel coronavirus pandemic [37]. In the face of these health system demands, differentiated care delivery models will become even more critical for keeping PWH retained in care with minimal resources. Differentiated models that deliver care within the context of microfinance groups have already demonstrated positive effects on chronic disease control including reductions in blood pressure [38] and increasing chronic disease preventive screening in high-risk, rural populations [39,40]. Furthermore, young adults and mobile populations may stand to benefit most from differentiated care options that can provide care and medications based on patients’ temporal and spatial realities [29]. Delivering community-based health services within the context of microfinance groups has not yet been extended to HIV. Doing so will be critical to keeping PWH retained in care [29] and achieving global disease control targets.

The current study is not without limitations. First, viral suppression is one of the most important markers of ART adherence but was not included as an outcome in this analysis. For both groups, complete data on time-updated viral load measurements were not available and applying more advanced statistical methods to address these missing data was beyond the scope of this analysis. Second, our study was dependent on the clinical data available AMPATH’s Medical Record System, which limited our selection of covariates. Although medical record data captured important sociodemographic factors associated with group microfinance participation (e.g. wealth proxies, household conditions), it is still possible that imbalances exist between the comparison groups in terms of unmeasured covariates, such as treatment adherence [10,12], group cohesion [12,41], or spousal support [12,41]. If these unmeasured covariates are confounders, then the matching methods could potentially exacerbate bias in treatment effect estimates. Also, our death estimates are conservative as occurrences of death are likely underestimated in both treatment groups and some patients who were counted as not retained in care may have died. Lastly, patients were considered to be participating in microfinance groups if they were enrolled in GISHE at the start of the data collection period in 2018. This definition only provides a snapshot of microfinance group participation as it does not capture patients who had previously been enrolled in GISHE prior to 2018 or who enrolled in GISHE after the start of data collection. We also could not measure how long GISHE participants had been involved in group microfinance. Thus, our regression models were unable to assess whether length of time in group microfinance or prior group participation influenced outcomes.

Despite these limitations, this study is one of the first to measure associations between microfinance group participation and objectively measured HIV-treatment outcomes. Improvements in retention in care and reduced mortality among microfinance group members underscore the importance of the group effect of microfinance interventions [12] for reducing the societal vulnerabilities facing PWH that can contribute to poorer HIV outcomes. These findings indicate that providing microfinance at the group level in the community could be extended to address the socioeconomic determinants of health affecting PWH and other chronic conditions in rural settings.

Supplementary Material

Supplementary Material

Acknowledgements

We gratefully acknowledge the excellent research assistance provided by Anthony Ngeresa, Bilha Murey, Lillian Wamboi, Benjamin Andama, Orit Abrahim, and Qulu Zheng.

Funding support:

the research reported in this publication was supported by the National Institute of Mental Health of the National Institutes of Health under award numbers R01MH118075 (MPIs: O.G.; B.L.G.) and K01MH099966 (B.L.G.) and in part by the Johns Hopkins Center for Global Health through its Global Established Multidisciplinary Sites (GEMS) program, supported in part by the Gilead Foundation. Seventy-five percent of the total cost to perform this research was financed with federal NIH/NIMH money. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Institutes of Health. All authors had full access to all data in the study and accept responsibility for its publication.

Footnotes

Conflicts of interest

There are no conflicts of interest.

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