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J Int AIDS Soc. 2017; 20(1): 21594.
Published online 2017 May 15. doi:  10.7448/IAS.20.1.21594
PMCID: PMC5515051

Examining the effects of HIV self-testing compared to standard HIV testing services: a systematic review and meta-analysis


Introduction: HIV self-testing (HIVST) is a discreet and convenient way to reach people with HIV who do not know their status, including many who may not otherwise test. To inform World Health Organization (WHO) guidance, we assessed the effect of HIVST on uptake and frequency of testing, as well as identification of HIV-positive persons, linkage to care, social harm, and risk behaviour.

Methods: We systematically searched for studies comparing HIVST to standard HIV testing until 1 June 2016. Meta-analyses of studies reporting comparable outcomes were conducted using a random-effects model for relative risks (RR) and 95% confidence intervals. The quality of evidence was evaluated using GRADE.

Results: After screening 638 citations, we identified five randomized controlled trials (RCTs) comparing HIVST to standard HIV testing services among 4,145 total participants from four countries. All offered free oral-fluid rapid tests for HIVST and were among men. Meta-analysis of three RCTs showed HIVST doubled uptake of testing among men (RR = 2.12; 95% CI: 1.51, 2.98). Meta-analysis of two RCTs among men who have sex with men showed frequency of testing nearly doubled (Rate ratio = 1.88; 95% CI: 1.17; 3.01), resulting in two more tests in a 12–15-month period (Mean difference = 2.13; 95% CI: 1.59, 2.66). Meta-analysis of two RCTs showed HIVST also doubled the likelihood of an HIV-positive diagnosis (RR = 2.02; 95% CI: 0.37, 10.76, 5.32). Across all RCTs, there was no indication of harm attributable to HIVST and potential increases in risk-taking behaviour appeared to be minimal.

Conclusions: HIVST is associated with increased uptake and frequency of testing in RCTs. Such increases, particularly among those at risk who may not otherwise test, will likely identify more HIV-positive individuals as compared to standard testing services alone. However, further research on how to support linkage to confirmatory testing, prevention, treatment and care services is needed. WHO now recommends HIVST as an additional HIV testing approach.

Keywords: HIV/AIDS, HIV test, HIV self-test, public health


Global scale-up of HIV testing services (HTS) has been significant. From 2010 to 2014, more than 600 million people received HTS in 122 low- and middle-income countries [1]. This expansion has been made possible through the widespread introduction of provider-initiated testing and counselling and an array of community-based approaches which are now considered the standard of care [2]. Despite this, approximately 40% of all HIV infections are undiagnosed worldwide [3] and countries are seeking ways to increase the number of people who know their HIV status to achieve the first of the United Nation’s 90-90-90 HIV testing and treatment goals – diagnosis of 90% of all people with HIV by 2020 [4].

HIV self-testing (HIVST) has been proposed as an approach to reach people who are not accessing existing HTS, such as men, young people, and key populations (i.e. people who inject drugs, men who have sex with men, sex workers, and transgender people). HIVST refers specifically to a process in which a person collects his or her specimen (oral fluid or blood) and performs a test and interprets the result, often in private or with someone they trust [2].

Several observational studies [517] and systematic reviews [1821] have shown HIVST can be performed accurately and is an acceptable and feasible testing approach in a variety of contexts; including among populations at ongoing HIV risk and those who may not otherwise test. As a discreet, convenient and empowering approach, many well-documented barriers to standard HTS, such as long-lines, services offered at inconvenient times, fear of stigma and lack of confidentiality [22], can be addressed by HIVST [18,2326].

To assess the potential effects of HIVST compared to standard HTS, that is, facility- or community-based approaches, we conducted a systematic review. Our objective was to assess the effects of HIVST on uptake and frequency of HIV testing, diagnosis of people with HIV, linkage to prevention and care, risk behaviour, social harm or other adverse events, compared to standard HTS. Review findings were then used to help determine whether HIVST should be recommended as an additional HTS approach in WHO guidelines.


This review followed guidance from the Cochrane Collaboration [27] and the PRISMA statement for the reporting of systematic reviews and meta-analyses. The review protocol and the full quality assessment are available in Appendix 1–2 (Supplemental material).

Search strategy and inclusion criteria

We searched five electronic databases PubMed, CINAHL, PsycINFO, Sociological Abstracts, and EMBASE through 1 June 2016 for peer-reviewed articles. We also searched the following conference databases for abstracts: International AIDS Conference (IAC), International AIDS Society Conference on HIV Pathogenesis, Treatment, and Prevention (IAS), and Conference on Retroviruses and Opportunistic Infections (CROI). IAC and IAS conference abstracts were searched for all available years (2001–2015). For CROI, only recent conferences (2014–2016) were searched as past conferences were inaccessible. Secondary reference searching was conducted on all studies included in the review as well as on previously published reviews. We also contacted experts to identify additional studies, specifically abstracts being presented at the 2016 IAC, and reviewed databases listing ongoing RCTs through, WHO International Clinical Trials Registry Platform, and Pan African Clinical Trials Registry.

The search strategy was adapted for entry into all computer databases using key terms “HIV”, “self-test”, and “home test” (Appendix 1 (Supplemental material)). To search HIV-related conference abstracts, only terms for self-testing were used because search functions were limited. No language or geographic limitations were placed on the search.

Two reviewers (CK and VF) screened studies. The first reviewer identified study titles and abstracts meeting the inclusion criteria. The second reviewer evaluated the application of screening criteria and approved selected studies. Disagreements between reviewers were resolved through discussion and consensus. CJ, VF, CK also contacted all authors of studies included in the review to collect additional information about each study.

To be included, studies needed to directly compare HIVST to HTS by a provider in either a facility or community setting (defined as standard HTS) and report on one or more of the following outcomes: (1) uptake of HIV testing (e.g. the number of participants who tested for HIV in the study period); (2) frequency of HIV testing (e.g. the number of times a participant tested for HIV in the study period); (3) social harm/adverse events (defined as any undesirable experience, or intended or unintended harm associated with HIV self-testing); (4) HIV positivity (e.g. the proportion of people with a reactive self-test who received confirmatory HTS and were diagnosed HIV positive); (5) proportion of people linked to confirmatory testing, clinical assessment or treatment and/or measurement of CD4 or viral load among those diagnosed HIV positive; (6) linkage to prevention services following nonreactive self-test result; or (7) sexual risk behaviour (measured as report of condomless sex, sexual transmitted infections (STIs) or number of sexual partners).

Additionally, we also searched for the full-text publication of any abstract included in the review as of 15 March 2017 to check for updates to previous reports.

Data analysis

Data were extracted independently by four reviewers using standardized extraction forms. Risk of bias was assessed according to guidance by the Cochrane Collaboration and determined by CK, VF, NS, and CJ [27]. Where multiple studies reported the same or comparable outcomes, meta-analyses were conducted using random-effects models to combine relative risks for dichotomous data, mean differences for continuous data, or rate ratios for frequency data, with 95% confidence intervals using REVMAN 5.3.5.

Quality assessment

GRADE methodology was used to assess and appraise the quality of evidence for each outcome across all studies, and included an evaluation of the risk of bias, imprecision, indirectness, and inconsistency, and other considerations including publication bias [28] (Appendix 2 (Supplemental material)).


The searches yielded 638 citations, which after screening resulted in five eligible RCTs (Figure 1).

Figure 1.
Study selection.

Study characteristics

All five RCTs were published between 2015 and 2017. Three were full-text manuscripts [2931], one of which was in press [31,32], and two were conference abstracts [33,34]. These studies included a total of 4,145 individuals (range: 230–2523). The largest study was among 1410 pregnant women and 1113 of their locatable male partners in Kenya [33]. All RCTs reported outcomes among men: two took place in Kenya where women delivered HIVST to their male partners [30,33] and the remainder were among men who have sex with men (MSM) in Australia [29], Hong Kong SAR [31,32], and the United States [34]. Table 1 summarizes the study characteristics.

Table 1.
Summary of included study characteristics (n = 5)

All studies offered free oral HIVST kits with the manufacturer’s instructions for use, but differed in terms of the number of kits and the level of assistance provided. In order to encourage quarterly testing, in the United States and Australia, MSM had continuous access to HIVST kits [29,34], and in Australia, participants received four HIVST kits at enrolment. In Kenya, women were provided with two HIVST kits at enrolment (one for them and one for their male partner) [30,33]. In Hong Kong SAR, MSM were provided with only one HIVST kit at enrolment [31,32].

HIVST can be delivered with direct assistance, such as an in-person demonstration on how to self-test, or unassisted using either manufacture instructions for use alone. In addition, other support tools such as telephone hotlines, videos or messaging services may also be provided [2]. Two RCTs [29,31,32] provided unassisted HIVST, but in addition to the test kit participants had access an informational video; and one RCT, also provided motivational interviewing via telephone and counselling through online live-chat services [31,32]. The remainder provided an in-person demonstration on how to self-test (direct assistance) [30,33,34]; two of which provided women a demonstration so they could show their male partners how to self-test [30,33].

Uptake of HIV testing

Three RCTs [3033] reported on uptake of HIV testing (Table 2). A meta-analysis showed moderate-quality evidence that HIVST doubled the uptake of HIV testing compared to standard HTS (RR = 2.12; 95% CI: 1.51, 2.98; Tau2 = 0.08; Chi2 = 32.88, df = 2 (p = 0.001; I2 = 94%)) (Figure 2). The high level of statistical heterogeneity was driven by the Gichangi and colleagues RCT [33], which measured uptake among men who had accepted some form of HIV testing and did not include those who declined testing. Since the estimate of effects was beneficial for all three RCTs, we did not downgrade for inconsistency. Two RCTs [30,33], where women delivered HIVST to their male partners, also reported HIVST increased uptake of couples testing compared to standard HTS, with moderate-quality evidence (Table 2).

Table 2.
Summary of select study outcomes (n = 5)
Figure 2.
Uptake of HIV testing over three and six month periods among male partners of pregnant women and men who have sex with men.

There was low-quality evidence that HIVST resulted in greater HIV testing uptake among young MSM in Hong Kong SAR (18–25 years of age), including both recent and non-recent testers compared to standard HTS (Young MSM: RR = 1.79; 95% CI: 1.43, 2.24; Recent testers: RR = 1.75; 95% CI: 1.46, 2.08; Non-recent testers: RR = 2.22; 95% CI: 1.61; 3.08) [31,32]. In this same study, MSM who reported condomless anal intercourse at baseline were more likely to test if they were in the HIVST group compared to if they were in the standard testing group (RR = 1.75; 95% CI: 1.26, 1.81) [31,32].

Frequency of HIV testing

Two RCTs [29,34] in this review, both among MSM, reported on the frequency of HIV testing. Meta-analysis showed there was low-quality evidence that HIVST nearly doubled testing frequency compared to facility-based testing (Rate ratio = 1.88; 95% CI: 1.17; 3.01; Tau2 = 0.11, Chi2 = 23.33, df = 1 (p < 0.0001), I2 = 96%) (Figure 3) and resulted in two more HIV tests in a 12–15-month period than those receiving standard facility-based HTS (Mean difference = 2.13; 95% CI: 1.59, 2.66; Tau2 = 0.10; Chi2 = 2.37, df = 1 (p = 0[bullet]12), I2 = 58%) (Figure 4) [29,34]. In Australia, there was very low-quality evidence that HIVST substantially increased the frequency of testing among non-recent testers compared to standard facility-based HIV testing at 12 months (Rate ratio = 5.54; 95% CI: 3.15, 9.74)[29] (Table 3).

Table 3.
Summary of study outcomes on uptake and frequency of HIV testing among recent and non-recent testers among men who have sex with men (n = 2)
Figure 3.
Rate ratio of frequency of testing in a 12–15-month period among men who have sex with men.
Figure 4.
Frequency of HIV testing measured by the mean number of tests in a 12–15-month period among men who have sex with men.

HIV positivity

Two RCTs [30,34] reported on HIV positivity following HIV testing. Meta-analysis showed there was very low-quality evidence that HIVST doubled the likelihood of an HIV-positive diagnosis compared to those using standard testing alone (RR = 2.02; 95% CI: 0.37, 10.76, 5.32) (Figure 5).

Figure 5.
HIV positivity measured by proportion of people reporting an HIV-positive diagnosis.

Linkage to care

One RCT in Kenya [30], with very low-quality evidence, reported on linkage to care. In the study, women reported that 25% (n = 2/8) of their male partners in the HIVST group linked to confirmatory testing at 3-month follow-up. Following confirmatory testing, both men were reportedly confirmed HIV positive and then linked to care. In the control group, women reported that all four male partners who were diagnosed HIV positive linked to care.

Risk behaviour

Two RCTs [31,32,34] reported on risk-taking behaviours. In the United States, there was very low-quality evidence showing that MSM in the HIVST group did not increase condomless anal intercourse compared to those undergoing facility-based HTS (RR = 0.94: 95% CI: 0.55, 1.61) [34]. In this same study, there was very low-quality evidence that men in the HIVST group acquired fewer STIs than those in the standard HTS group (RR = 0.42; 95% CI: 1.15, 1.15) [34]. However, among MSM in Hong Kong SAR, there was very low-quality evidence that those in the HIVST group were more likely to report condomless anal intercourse (RR = 1.43: 95% CI: 0.98, 2.08) at 6-month follow-up than those in the standard HTS group.

Social harm

One RCT [30] with very low-quality evidence reported on social harm following HIVST or standard facility-based HTS. In this trial, there were reports of a single harm in each group among two HIV-negative participants, 1/297 (0.34%) in the HIVST group and 1/303 (0.33%) in the control group, both relating to verbal and/or physical intimate-partner violence (IPV). In the HIVST group, the harm was not directly related to HIVST as the female participant reported violence occurred as a result of agreeing to participate in the study without consulting her husband. At enrolment neither participant reported experiencing IPV in the past 12 months, and the RCT used IPV screening tools and excluded women reporting risk of IPV [30].


Standard HTS approaches are essential and serve many people, but current approaches continue to miss a substantial number of people with HIV and those at high ongoing risk. This systematic review and meta-analysis finds there is moderate quality evidence that HIVST can increase the uptake of HIV testing and low-quality evidence that HIVST increases the frequency of HIV testing. This evidence is limited to MSM and male partners of pregnant and post-partum women in sub-Saharan Africa. However, these findings on increased uptake are consistent with the results of implementation studies from Kenya [13,35], Lesotho [17], Malawi [36,37], and Zimbabwe [38] which have been conducted among other populations known to have poor testing coverage, including men, young people and the households of people newly diagnosed with HIV, but do not directly compare with standard facility-based HTS.

Such increases in HIV testing uptake and frequency have important public health implications, if they can be achieved at a population level and reach those with undiagnosed HIV infection and at ongoing risk. As shown by two RCTs in this review [30,34] and reports from several other studies [12,15,31,36,39,40], increased testing due to HIVST can identify a greater or equivalent proportion of HIV infections as many existing HTS approaches. Sustained increases in HIV testing among men and other higher-risk populations, facilitated by HIVST, could identify a greater number of infections, and at an early stage in their infection [41], and result in earlier diagnosis and initiation of treatment and reduce HIV-related mortality. This is a particular priority for men, as they have greater HIV-related mortality than their female peers [42].

Limited information on linkage to care was identified in this review. Of the two RCTs reporting, one found that 72% (n = 396) of the male partners of women who received an HIVST kit said they accessed further testing to confirm their result [33]. This outcome, however, could not be directly compared with standard testing. In the other [30], while linkage following a reactive self-test appeared lower than those diagnosed in the standard group, few HIV-positive test results (n = 8) were reported. Additionally, this low level of linkage may be due to under-reporting and the possibility that some men already knew their HIV-positive status and were in care.

There are approaches following HIVST known to facilitate linkage to treatment, such as the offer of home-based ART initiation which resulted in a three-fold increase in linkage to care following HIVST in Malawi [43]. While results from a cluster-randomized trial in Malawi and a cohort study in Kenya suggest linkage to care following HIVST can be comparable to current national linkage rates [15,36], efforts to shorten the time between diagnosis and enrolment in care and improve overall linkage rates are needed. Further research is needed to identify ways to enhance linkage following HIVST; particularly for key populations, who may be less likely to link to services due to restrictive laws and policies.

Results from three RCTs [29,31,32,34] reporting on risk behaviours suggest HIVST did not increase risk-taking behaviour among MSM. While one RCT reported very low-quality evidence that HIVST could increase and having multiple sex partners among MSM in [31,32], results were not statistically significant. Additionally, data collected at baseline suggested high-risk MSM may be more likely to take up HIVST than standard HTS; and a sub-analysis among MSM who took up any testing across both arms found no effect on (RR = 0.81, 95% CI: 0.57, 1.75) and a minimal effect in reducing multiple male sex partners (RR = 0.72, 95% CI > 0.54, 0.95) [31,32]. Thus, while HIVST may not directly increase risk behaviours, there is some uncertainty and it is important that messages which reinforce the importance of using effective HIV prevention methods, such as condoms, are provided.

Only a single IPV event [30], which was not directly related to HIVST, was identified in this review of RCTs. Such findings are consistent with those reported by a review assessing harm resulting from self-testing for various conditions and diseases [44], an observational study in the United States among MSM [45], and a 2-year cluster-randomized trial [36] and parallel longitudinal qualitative study [24,46] in Malawi, which reported no cases of physical violence, self-harm or suicide and few cases of “coercion”.

In Malawi, the majority of those reporting “coercion” were men who also stated they were highly satisfied with HIVST (92%, 130/141) and would recommend it to others [36]. Qualitative findings from this same study also indicated that most users consider HIVST to be empowering, but some couples (n = 2/17) felt “pressure” to self-test by their partner and said serodiscordant HIVST results were challenging [24,46]. In contrast, a cohort study among 265 HIV-negative pregnant and post-partum women and female sex workers in Kenya reported two cases of IPV among post-partum women who distributed HIVST to their male partner and two cases of physical violence among female sex workers who distributed HIVST to their clients [15]. It is unclear if these cases were attributable to HIVST, as 41% of women in the study reported experiencing violence in the preceding 12 months [15]. These findings suggest that not all testing approaches are appropriate for all contexts, and caution is still needed in vulnerable populations. In order to guide safe HIVST implementation, programmes will need to consult populations at a risk of abuse. Additionally, HIVST may not be an appropriate or safe approach for all populations. It is important that information on where and how to access other HTS approaches, including community-based options, continues to be provided.

Strengths and limitations

While other reviews on HIVST have assessed accuracy, feasibility and acceptability [1821], this review is the first to directly compare HIVST to standard HTS and to systematically assess the effect of HIVST on uptake and frequency of testing, diagnosis of HIV-positive persons, linkage to care, risk behaviour and potential social harm. Additional strengths of this review include its ability to identify the latest evidence in both published and grey literature, its adherence to the PRISMA and Cochrane reporting standards and its consultation with global experts when defining the outcomes of interest to ensure finding would be relevant to the implementation and delivery of HTS (Appendix 2 (Supplemental material)).

The review and RCTs included, however, also have several limitations. Few studies which directly compared HIVST to standard HTS were identified in the review, and meta-analyses were only able to be performed among a small number of RCTs which had comparable outcomes. RCTs identified focused on male partners of women in antenatal or post-partum care and MSM, including sub-groups of recent and non-recent testers and young MSM. Other populations were not evaluated.

All RCTs compared HIVST to facility-based HTS. None compared HIVST to other community-based HTS approaches. Testing behaviour was assessed through self-report in all five RCTs and the potential for detection bias cannot be disregarded. However, self-reported data was validated with clinical records in two RCTs [29,32]. Two studies in this review were conference abstracts. However, we were able to contact all authors directly and obtain additional information, including full study protocols, which addressed some reporting gaps (Appendix 2 (Supplemental material)).


This review found greater uptake of and frequency of HIV testing associated with HIVST compared to standard HTS. Risk-taking behaviour did not appear to increase due to HIVST, nor was HIVST associated with harm. Based on the findings of this review, and additional information reviewed at an expert meeting, WHO now recommends HIVST be offered as an additional HTS approach. Countries should make HIVST available and determine how to use this approach to fill gaps in testing coverage and reach those at risk who are not accessing existing HTS. Further assessment of different service delivery models and strategies to facilitate linkage, cost-effectiveness and the pathway to create supportive policies will be needed to maximize the potential of introducing HIVST.


We would like to thank Ginny Burke (Johns Hopkins University Bloomberg School of Public Health) for her assistance with the initial abstract search as well as the World Health Organization guideline development group members for their contributions: Kindi Adam, Oliver Anene, Karen Champenois, Kathleen Charters, Martin Choo, Miriam Franchini, Rebecca Guy, Mehdi Karkouri, Dasha Matyushina Ocheret, Getrude Ncube, Sabin Nsanzimana, Bathabile Nyathi, Carla Obermeyer, Niluka Perera, Archana Sarkar, Jennifer Stuart-Dixon, Joseph Tak Fai Lau, Jane Thiomi, Francois Venter, Vincent Wong. Thanks also to the WHO steering committee and staff who have contributed to developing the guidelines: Wale Ajose, Annabel Baddaley, Andrew Ball, Michel Beusenberg, Brian Chirombo, Lastone Chitembo, Rosalind Coleman, Meg Doherty, Philippa Easterbrook, Shaffiq Essajee, Haileyesus Getahun, Peter Godfrey-Faussett, Joumana Hermez, Gottfried Hirnschall, Naoko Ishikawa, Lali Khotenashvili, Daniel Low-Beer, Frank Lule, Christine Mushanu, Simbarsha Mabaya, Buhle Ncube, Augustine Ntilivamunda, Ishmael Nyasulu, Martina Penazzato, Carmen Perez Casas, Julie Samuelson, Willy Urassa, Freddy Perez, Razia Pendse, Bharat Rewari, Ying Ru Lo, Mukta Sharma, Nicole Seguy, Annette Verster and Teodora Wi.



CJ and RB conceived and provided overall guidance to the study. CK and VF conducted screening and led data extraction, with support from CJ, NS, CF and SD. NS performed meta-analyses. CJ drafted the manuscript, and all authors CK, VF, NS, CF, SD, AS, and RB contributed. All authors have read and approved the final version.

Funding Statement

This systematic review was supported by UNITAID, the Bill and Melinda Gates Foundation [Grant Number: OPP1134510] and the United States Agency for International Development [Grant Number: GHA-G-00-09-00003] to inform the WHO guidelines on HIV self-testing.

Competing interests

We declare not competing interests. The authors alone are responsible for the views expressed in this article and they do not necessarily represent the views, decisions or policies of the institutions with which they are affiliated.

To access the supplementary material to this article please see Supplementary Files under Article Tools online.


The funder of the study had no role in study design, data collection, data analysis, data interpretation, or writing of the report. The corresponding author had full access to all the data in the study and had final responsibility for the decision to submit for publication. The authors alone are responsible for the views expressed in this article and they do not necessarily represent the views, decisions or policies of the institutions with which they are affiliated.


[1] World Health Organization (WHO). Factsheet to the WHO consolidated guidelines on HIV testing services. Geneva: WHO; 2015.
[2] World Health Organization (WHO). Consolidated guidelines on HIV testing services. Geneva: WHO; 2015.
[3] UNAIDS. Prevention gap report. Geneva: Joint United Nations Programme on HIV/AIDS; 2016.
[4] Fast-track - ending the AIDS epidemic by 2030. Geneva: UNAIDS; 2014.
[5] Bustamante MJ, Konda KA, Joseph Davey D, Leon SR, Calvo GM, Salvatierra J, et al HIV self-testing in Peru: questionable availability, high acceptability but potential low linkage to care among men who have sex with men and transgender women. Int J STD & AIDS. 2017;28(2):133–10. [PubMed]
[6] Cowan F. Designing safe, acceptable and appropriate HIVST interventions for female sex workers. Presented at: 21st International AIDS Conference; 2016. July 18–22; Durban, South Africa.
[7] De La Fuente L, Rosales-Statkus ME, Hoyos J, Pulido J, Santos S, Bravo MJ, et al Are participants in a street-based HIV testing program able to perform their own rapid test and interpret the results?. Plos ONE. 2012;7(10):e46555. [PMC free article] [PubMed]
[8] Green K, Thu H In the hands of the community: accelerating key population-led HIV lay and self-testing in Viet Nam. Presented at: 21st International AIDS Conference; 2016. July 18–22; Durban, South Africa.
[9] Grinsztejn B, De Boni R Ahora e Agora: HIVST to reach men who have sex with men (MSM) in Brazil. Presented at: 21st International AIDS Conference; 2016. July 18–22; Durban, South Africa.
[10] Lippman SA, Moran ME, Ventura A, Castillo LS, Buchbinder S, Treves-Kagan S, et al Home HIV testing among transgender women in San Francisco: a pilot feasibility and acceptability study. AIDS and Behav. 2017;20(4):928–38. [PMC free article] [PubMed]
[11] Marley G, Kang D, Wilson EC, Huang T, Qian Y, Li X, et al Introducing rapid oral-fluid HIV testing among high risk populations in Shandong, China: feasibility and challenges. BMC Publ Health. 2014;14:422. [PMC free article] [PubMed]
[12] Medline A, Huang E, Marlin R, Young S, Kwok J, Klausner J Using Grindr™, a social-media–based application, to increase HIV self testing among high-risk men who have sex with men in Los Angeles, California, 2014. Presented at: Conference on Retroviruses and Opportunistic Infections; 2015. February 23–26; Seattle, WA.
[13] Ngure K, Heffron R, Mugo N, Irungu E, Njuguna N, Mwaniki L Uptake of HIV self-testing among people receiving PrEP in Kenya. Presented at: Research for HIV Prevention Conference; 2014. Oct 30–Nov 3; Cape Town, South Africa.
[14] Sarkar A, Mburu G, Behara J, Sharma P, Mishra S, Mehra S Feasibility of supervised self-testing using an oral fluid-based HIV rapid testing method. Presented at: 8th International AIDS Society Conference; 2015. July 19–22; Vancouver, Canada.
[15] Thirumurthy H, Masters S, Mavedzenge S, Maman S, Omanga E, Agot K Promoting male partner HIV testing and safer sexual decision making through secondary distribution of self-tests by HIV-negative female sex workers and women receiving antenatal and post-partum care in Kenya: a cohort study. Lancet HIV. 2016;3(6):e266–e74. [PMC free article] [PubMed]
[16] Wang XF, Wu ZY, Tang ZZ, Nong QX, Li YQ Promoting HIV testing with home self-test kit among men who have sex with men in China: a feasibility study. Lancet. 2015;386:68.
[17] Zerbe AV, DiCarlo AL, Mantell JE, Remien RH, Morris DD, Frederix K, et al Acceptability and uptake of home-based HIV self-testing in Lesotho. Top Antivir Med. 2015;23:509–10.
[18] Figueroa C, Johnson C, Verster A, Baggaley R Attitudes and acceptability on HIV self-testing among key populations: a literature review. AIDS Behav. 2015;19(11):1949–65. [PMC free article] [PubMed]
[19] Figueroa C, Johnson C, Verster A, Dalal S, Baggaley R Systematic review on HIV self-testing (HIVST) performance and accuracy of results. Presented at: 21st International AIDS Conference; 2016. July 18–22; Durban, South Africa.
[20] Krause J, Subklew-Sehume F, Kenyon C, Coelebunders R Acceptability of HIV self-testing: a systematic literature review. BMC Publ Health. 2013;13:735. [PMC free article] [PubMed]
[21] Pant Pai N, Sharma J, Shivkumar S, Pillay S, Vadnais C, Joseph L, et al Supervised and unsupervised self-testing for HIV in high- and low-risk populations: A systematic review. Plos Med. 2013;10(4):e1001414. [PMC free article] [PubMed]
[22] Siedner MJ, Ng CK, Bassett IV, Katz IT, Bangsberg DR, Tsai AC Trends in CD4 count at presentation to care and treatment initiation in sub-Saharan Africa, 2002-2013: a meta-analysis. Clin Inf Dis. 2015;60(7):1120–27. [PMC free article] [PubMed]
[23] Martinez Perez G, Cox V, Ellman T, Moore A, Patten G, Shroufi A, et al ‘I know that i do have hiv but nobody saw me’: oral HIV self-testing in an informal settlement in South Africa. Plos One. 2016;11(4):e0152653. [PMC free article] [PubMed]
[24] Kumwenda M, Munthali A, Phiri M, Mwale D, Gutteberg T, MacPherson E, et al Factors shaping initial decision-making to self-test amongst cohabiting couples in urban Blantyre, Malawi. AIDS Behav. 2014;18(Suppl 4):S396–404. [PMC free article] [PubMed]
[25] Nkuna E, Nyazema N HIV self-testing, self-stigma and HAART treatment at the university of Limpopo: health sciences students’ opinion and perspectives. Open AIDS J. 2016;10:78–82. [PMC free article] [PubMed]
[26] Brown W 3rd, Carballo-Dieguez A, John RM, Schnall R Information, motivation, and behavioral skills of high-risk young adults to use the HIV self-test. AIDS Behav. 2016;20:2000–09. [PMC free article] [PubMed]
[27] Higgins JPT., Green S, editors. Cochrane Handbook for Systematic Reviews of Interventions Version 5.1.0 [updated March 2011]. The Cochrane Collaboration, 2011. Available from
[28] Guyatt GH, Oxman AD, Montori V, Vist G, Kunz R, Brozek J, et al GRADE guidelines: 5. Rating the quality of evidence–publication bias. J Clin Epidemiol. 2011;64(12):1277–82. [PubMed]
[29] Jamil MS, Prestage G, Fairley CK, Grulich AE, Smith KS, Chen M, et al Effect of availability of HIV self-testing on HIV testing frequency in gay and bisexual men at high risk of infection (FORTH): a waiting-list randomised controlled trial. Lancet HIV. 2017;S2352-3018(17)30023-1. [PubMed]
[30] Masters SH, Agot K, Obonyo B, Napierala Mavedzenge S, Maman S, Thirumurthy H Promoting partner testing and couples testing through secondary distribution of HIV self-tests: A randomized clinical trial. Plos Med. 2016;13(11):e1002166. [PMC free article] [PubMed]
[31] Wang Z, Lau J, Ip M, Ho S, Phoenix K, Latkin CA, et al A randomized control trial evaluating efficacy of promoting home-based HIV self-testing with online counseling on increasing HIV testing among men who have sex with men. In Press.
[32] Wang Z, Lau J, Ip M, Ho S A randomized controlled trial evaluating the efficacy of promoting HIV self-testing and online real-time counseling on increasing HIV testing among men who have sex with men in Hong Kong. Presented at: International Congress of Behavioral Medicine; 2016. December 7–10; Melbourne, Australia
[33] Gichangi A, Wambua J, Gohole A, Mutwiwa S, Njogu R, Bazant E, et al Provision of oral HIV self-test kits triples uptake of HIV testing among male partners of antenatal care clients: results of a randomized trial in Kenya. Presented at: 21st International AIDS Conference; 2016. July 18–22; Durban, South Africa.
[34] Katz D, Golden M, Hughes J, Farquhar C, Stekler J HIV self-testing increases HIV testing frequency among high-risk men who have sex with men: a randomized controlled trial. Presented at: 8th International AIDS Society Conference; 2015. July 19–22; Vancouver, Canada.
[35] Mugo P, Micheni M, Shangala J, Hussein M, Graham S, Rinke De Wit T, et al Uptake and acceptability of oral HIV self-testing among community pharmacy clients in kenya: A feasibility study. Plos One. 2017;12(1):e0170868. [PMC free article] [PubMed]
[36] Choko AT, MacPherson P, Webb EL, Willey BA, Feasy H, Sambakunsi R, et al Uptake, accuracy, safety, and linkage into care over two years of promoting annual self-testing for HIV in Blantyre, Malawi: A community-based prospective study. Plos Med. 2015;12(9):e1001873. [PMC free article] [PubMed]
[37] Choko AT, Desmond N, Webb EL, Chavula K, Napierala-Mavedzenge S, Gaydos CA, et al The uptake and accuracy of oral kits for HIV self-testing in high HIV prevalence setting: A cross-sectional feasibility study in Blantyre, Malawi. Plos Med. 2011;8(10):e1001102. [PMC free article] [PubMed]
[38] Sibanda E, Mutseta M, Hatzold K, Gudukeya S, Dhliwayo A, Lopez C, et al Community-based distribution of HIV self-test kits: results from a pilot of door-to-door distribution of HIV self-test kits in one rural Zimbabwean community. Presented at: 21st International AIDS Society; 2016. July 18–22; Durban, South Africa.
[39] Katz D, Golden M, Cassell D, Stekler J Monitoring the population-level impact of HIV self-testing through HIV surveillance and partner services. Presented at: National HIV Prevention Conference; 2015. December 6–9; Atlanta, USA.
[40] Katz D, Golden M, Farquhar C, Stekler J HIV self-test distribution via STI partner services to reach untested men who have sex with men. Presented at: National HIV Prevention Conference; 2015. December 6–9; Atlanta, USA.
[41] Guy RJ, Prestage GP, Grulich A, Holt M, Conway DP, Jamil MS, et al Potential public health benefits of HIV testing occurring at home in Australia. Med J Aust. 2015;202(10):529–31. [PubMed]
[42] Bor J, Rosen S, Chimbindi N, Haber N, Herbst K, Mutevedzi T, et al Mass HIV treatment and sex disparities in life expectancy: demographic surveillance in rural. Plos Med. 2015;12(11):e1001905. [PMC free article] [PubMed]
[43] MacPherson P, Lalloo DG, Webb EL, Maheswaran H, Choko AT, Makombe SD, et al Effect of optional home initiation of HIV care following HIV self-testing on antiretroviral therapy initiation among adults in Malawi: a randomized clinical trial. J Am Med Assoc. 2014;312(4):372–79. [PMC free article] [PubMed]
[44] Brown A, Djimeu E, Cameron D A review of the evidence of harm from self-tests. AIDS Behav. 2014;18(Suppl 4):S445–9. [PMC free article] [PubMed]
[45] Carballo-Dieguez A, Frasca T, Balan I, Ibitoye M, Dolezal C Use of a rapid HIV home test to screen potential sexual partners prevents HIV exposure in a high-risk sample of MSM. AIDS Behav. 2012;16(7):1753–60. [PMC free article] [PubMed]
[46] Lora W, Chipeta E, Desmond N Understanding coercion in the context of semi-supervised HIV self-testing in urban Blantyre, Malawi. Presented at: 21st International AIDS Conference; 2016. July 18–22; Durban, South Africa.

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