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. 2026 May 9;15:90. doi: 10.1186/s13756-026-01757-0

Global landscape of locally produced alcohol-based handrub in health care settings: a scoping review

Hiroki Saito 1,2,, Ermira Tartari 3,4, Jacopo Garlasco 5, Didier Pittet 6, Benedetta Allegranzi 7
PMCID: PMC13326558  PMID: 42106756

Abstract

Background

Reliable access to alcohol-based handrub (ABHR) is essential for hand hygiene and infection prevention, yet many low- and middle-income countries (LMICs) continue to face supply constraints. A 2011 WHO global assessment demonstrated that WHO-recommended ABHR formulations produced locally at low cost, were well accepted by healthcare workers, but also highlighted persistent barriers, including challenges in procuring ingredients and dispensers and in ensuring adequate quality control. This review aimed to provide an updated global synthesis of evidence on local ABHR production in healthcare settings.

Methods

Following the Joanna Briggs Institute framework and the Preferred Reporting Items for Systematic reviews and Meta-Analyses extension for Scoping Reviews (PRISMA-ScR) guidelines, we systematically searched Embase, Medline, and CINAHL from inception to 19 March 2025. Two reviewers independently conducted title-abstract screening, full-text screening and data extraction. Primary research articles reporting local ABHR production in healthcare settings in LMICs were eligible for data extraction and descriptive synthesis.

Results

Of 2343 articles screened, 31 studies from 19 countries were included (2006–2023). Over half (n = 18, 58%) were conducted during the COVID-19 pandemic; 22 described health-facility production and 9 described factory-level manufacturing. Of the 22 health-facility production studies, 12 (55%) used WHO Formulation 1 (ethanol-based) or modifications thereof. Pharmacists most commonly led production at the health-facility level. Only 6% (two articles) reported the source of alcohol, and less than half evaluated efficacy or organoleptic properties (13 and 12, respectively). Most funded studies relied on high-income-country (HIC) grants (17 of 24, 71%).

Conclusions

Local ABHR production remains infrequently reported in the literature, although publications increased during the COVID-19 pandemic. Heavy reliance on short-term, HIC-funded initiatives raises concerns about the long-term scalability and sustainability of local ABHR production in LMICs. Strengthening national regulatory capacity, quality-control laboratories, and sustainable financing is critical to maintain safe ABHR access beyond pandemic contexts, for resilient national supply chains and in-country quality control capacity.

Supplementary Information

The online version contains supplementary material available at 10.1186/s13756-026-01757-0.

Keywords: Local production, Alcohol-based handrub, Healthcare associated infections, Hand hygiene, Infection prevention and control

Background

Alcohol-based handrub (ABHR) is a cornerstone of hand hygiene in health care and is included in the World Health Organization (WHO) Essential Medicines List [1]. In its 2009 Guidelines on Hand Hygiene in Health Care, WHO identified “system change”, ensuring reliable access to essential hand hygiene products and infrastructure, as a key component of the Multimodal Hand Hygiene Improvement strategy [2]. To support this, WHO developed guidance for local ABHR production, recommending two formulations (ethanol-based Formulation 1 and isopropyl alcohol-based Formulation 2) to facilitate affordable, safe, and context-appropriate supply [3].

Despite these efforts, access to safe and reliable hygiene products remains a major barrier in many settings. In 2019, WHO and United Nations Children’s Fund (UNICEF) reported that one in four healthcare facilities globally, and nearly half in sub-Saharan Africa, lacked basic water services [4], jeopardizing progress toward the United Nation’s Sustainable Development Goal (SDG) 6 (Clean Water and Sanitation), and SDG 3 (Good Health and Well-Being) [5]. The COVID-19 pandemic further strained these systems, leading to shortages of safe water and ABHR and the widespread circulation of substandard products [68], Water, sanitation and hygiene (WaSH), infection prevention and control (IPC) and universal health coverage (UHC) are closely interdependent, underpinning local resilience, whose priority was highlighted in the post-pandemic context.

In 2011, WHO global assessment of 34 healthcare facilities across 29 countries, including 23 low- and middle-income countries (LMICs) [9], demonstrated that WHO-recommended ABHR formulations could be produced locally at low cost and with good tolerability among healthcare workers, but also identified persistent challenges in procuring ingredients and dispensers and ensuring adequate quality control. More than a decade later, and despite the availability of WHO guidance and early successful pilots, no global synthesis has mapped how and where local ABHR production has been implemented. WHO has recently identified the need to understand approaches that support sustained system change as a high-priority research area for hand hygiene in health care [10, 11].

To address these gaps, we conducted a scoping review to provide an up-to-date global assessment of local ABHR production in healthcare settings, describe geographic and temporal trends, and identify factors influencing sustainability and quality assurance.

Methods

This scoping review followed the Joanna Briggs Institute (JBI) methodology for scoping reviews and is reported in accordance with the Preferred Reporting Items for Systematic Reviews and Meta-Analyses extension for Scoping Reviews (PRISMA-ScR) [12, 13]. A scoping review design was selected to map the extent, range, and nature of the evidence on local ABHR production, recognizing the heterogeneity of study designs and implementation contexts.

Eligibility criteria

We included primary research articles reporting the local production of ABHR within healthcare settings in LMICs. Country income levels were determined according to the World Bank classification system applicable at the time of each study’s publication [14]. Local production was defined as ABHR manufactured within the country where it was used, including production at facility, district, or national factory level.

We excluded studies that described ABHR production outside healthcare settings (e.g., community settings), studies conducted exclusively in high-income countries (HICs), and non-original publications (reviews, commentaries, letters), as well as animal studies, and non-English language publications. The review protocol was pre-registered and published in an open-source platform previously (Open Science Registries (OSF), 10.17605/OSF.IO/3KA54) [15].

Information sources

A literature search was conducted in Embase (Elsevier), Medline (Ovid), and CINAHL (EBSCOhost) from database inception to 19 March 2025. Reference lists of included studies and relevant WHO or institutional reports were reviewed to identify additional eligible publications. Grey literature was not systematically searched due to resource constraints and the focus on peer-reviewed evidence.

Search strategy

Search strategies were developed in collaboration with an experienced medical librarian and combined controlled vocabulary (e.g., MeSH, Emtree) with free-text terms related to hand sanitizer, alcohol-based handrub, local production, and manufacturing. No date or study-design limitations were applied. Full search strategies for each database, including record counts, are provided in Appendix 1.

Screening and selection

All records were imported into EndNote 21 for deduplication before being uploaded to Rayyan (https://www.rayyan.ai/) for screening. Two reviewers independently screened titles and abstracts, followed by full-text assessment against the inclusion criteria (HS, ET and JG). Disagreements were resolved through discussion or adjudication by a third reviewer. Full-text articles meeting eligibility criteria were included for data extraction. Reasons for exclusion at the full-text stage were documented. The overall selection process is presented in a PRISMA-ScR flow diagram (Fig. 1).

Fig. 1.

Fig. 1

PRISMA flow diagram of a scoping review on local alcohol-based hundrub production

Data charting

Data were extracted independently by two reviewers using a pre-defined and pilot-tested charting form. Extracted variables included: study identifiers (country, year of publication, study period, study design), linkage to the COVID-19 pandemic, ABHR formulation type, production setting (facility-level or factory-level), professional cadres involved in production, evaluation of ABHR characteristics (e.g., efficacy, acceptability/tolerability, organoleptic properties), and funding sources. Any discrepancies in extracted data were resolved through consensus or third-reviewer arbitration. Consistent with JBI guidance, no critical appraisal of study quality was undertaken.

Synthesis of results

Extracted data were synthesized descriptively to map geographical distribution, temporal trends, production modalities, and evaluation practices related to local ABHR production. Frequencies and proportions were calculated using Microsoft Excel, and findings were summarized narratively and in tabular form.

Results

The literature search was conducted on March 19, 2025, yielding 3036 articles identified from the databases. After removing duplicates of 693 articles, a total of 2343 articles were reviewed for title-abstract screening, followed by 90 articles for full-text screening. Subsequently, 31 articles were selected for data extraction and synthesis (Fig. 1).

Characteristics of the eligible articles in the scoping review

The characteristics of the 31 eligible articles included in the scoping review was summarized in Table 1. The included studies spanned 2006–2023 across 19 countries and six WHO regions: Africa accounted for two thirds (n = 21, 67.7%), followed by Asia (n = 6, 19.4%) (Fig. 2). Nine articles were published before 2020 whereas 22 were published in 2020 or later: eighteen articles (n = 18, 58.1%) were relevant to the COVID-19 pandemic (Fig. 3). Seventeen articles (54.8%) were single-year studies. Approximately half of the articles (n = 16, 51.6%) were non-interventional studies, either cross-sectional design (n = 10) or descriptive nature/institutional report (n = 6), and the rest 15 articles were quasi-experimental studies. ABHR was produced at health-facility level in 22 articles (71.0%) and manufactured at factories in nine articles (29.0%), respectively. Among the articles of ABHR production at health-facility level, the WHO Formulation 1 (ethanol-based) including modifications was most commonly produced (12 out of 22, 54.5%), and pharmacists were the main profession in charge of the production (11 out of 11 articles reporting the profession, 100%), followed by laboratory technicians. The source of alcohol was rarely reported (two out of 31, 6.5%). The majority of the funded studies (17 out of 24 articles, 70.8%) were supported by grants from HICs.

Table 1.

Characteristics of the eligible studies of a scoping review on local alcohol-based handrub production

Author Country Study year Impact of COVID-19 Study design ABHR formulation ABHR format Efficacy evaluation Organoleptic evaluation Organoleptic characteristics Health Facility produced vs Factory manufactured Professions of the staff producing ABHR Funding
Nigro et. al. [28] Brazil 2020 Yes Descriptive report of institutional experience ABHR containing 70% ethanol concentration, according to the Brazilian Pharmacopeia National Form Rinse, Gel Yes Yes Appearance, Texture Facility Pharmacists, Pharmacy technicians no specific funds
Müller et. al. [29] Côte d'Ivoire 2018–2020 Yes Quasi-experimental WHO formulation 1 Rinse Yes No n/a Facility Pharmacists, Laboratory technicians, Hygiene experts Governmental (HIC)
Caniza et. al. [30] El Salvador 2007 No Quasi-experimental ABHR following the local standard procedure (62% ethanol concentration, citrus aroma added) Gel No Yes Smell, Texture Facility Pharmacist Philanthropic (HIC)
Pfäfflin et. al. [31] Ethiopia 2016 No Quasi-experimental WHO formulations (details unknown) not specified No Yes Skin tolerability Facility not specified Governmental (HIC)
Gebremicael et. al. [32] Ethiopia 2018–2019 No Quasi-experimental WHO formulation 1 not specified Yes No n/a Facility not specified Governmental (HIC), Philanthropic (HIC)
Manaye et. al. [33] Ethiopia 2020 Yes Cross-sectional Various types of ABHR from local vendors tested for efficacy (mostly ethanol based) not specified Yes No n/a Factory n/a (Commercial entities) Academia (LIC)
Selam et. al. [34] Ethiopia 2020 Yes Cross-sectional not specified not specified No No n/a Facility not specified Governmental (LIC)
Selam et. al. [35] Ethiopia 2020 Yes Cross-sectional not specified not specified No No n/a Facility not specified no specific funds
Selam et. al. [23] Ethiopia 2022 Yes Cross-sectional Various types of ABHR in market tested for content and efficacy not specified Yes Yes Appearance, Smell Factory n/a (Commercial entities) Academia (LIC)
Müller et. al. [36] Guinea 2017–2019 No Quasi-experimental WHO formulations 1 not specified Yes Yes Appearance, Skin tolerability, Acceptance among HCWs Facility Pharmacists Governmental (HIC)
Müller et. al. [37] Guinea 2017–2019 No Quasi-experimental not specified not specified No No n/a Facility Pharmacists Governmental (HIC)
Sharma et. al. [38] India 2009–2011 No Quasi-experimental Modified WHO formulation: 95% ethanol (lower by 1% compared to WHO formulation 1), 3% hydrogen peroxide, glycerol, water, and rose extract not specified Yes Yes Appearance, Skin tolerability Facility not specified Governmental (HIC)
Khurana et. al. [39] India 2020 Yes Descriptive report of institutional experience WHO formulations 1 and 2 (isopropyl alcohol) not specified Yes No n/a Facility not specified not reported
Tulsawani et. al. [40] India not specified Yes Descriptive report of institutional experience 73% isopropyl alcohol-based, herbal extracts (Aloe vera, Azadirachta indica, Citrus limon, Zingiber officinale/Ocimum sanctum) not specified Yes No n/a Facility not specified Governmental (MIC)
Putri et. al. [41] Indonesia 2014 No Cross-sectional WHO formulation 1 not specified Yes No n/a Facility not specified no specific funds
Rafizadeh et. al. [42] Iran 2020 Yes Cross-sectional Various types of ABHR in market tested to meet standards by WHO and Food and Drug Administration guidelines not specified No No n/a Factory n/a (Commercial entities) Academia (MIC)
Ndegwa et. al. [43] Kenya 2012–2014 No Quasi-experimental ABHR with 75% alcohol concentration, using 99.8% isopropyl alcohol, 6% hydrogen peroxide, and 99% glycerol not specified No Yes Smell, Skin tolerability, Feeling on skin Facility Pharmacists Governmental (HIC, MIC)
Ochwoto et. al. [44] Kenya 2015 No Cross-sectional Various types of ABHR in market and hospitals tested for efficacy (mostly ethanol or isopropyl alcohol based) Rinse, Gel Yes Yes Appearance, Feeling on skin, Ease of use Factory n/a (Commercial entities) Governmental (HIC, MIC)
Saab et. al. [24] Lebanon 2021–2022 Yes Cross-sectional Various types of ABHR in market tested for content and quality Gel, Spray No No n/a Factory n/a (Commercial entities) Academia (MIC)
Bausch et. al. [45] Liberia, Guinea 2014–2016 No Descriptive report of institutional experience WHO formulation 1 (ethanol purchased from a local commercial entity) not specified No No n/a Facility Pharmacists, Laboratory technicians Academia (HIC), Governmental (HIC)
Kachingwe et. al. [46] Malawi 2020 Yes Descriptive report of institutional experience Modified WHO formulation 1 Gel Yes Yes Texture, Skin tolerability, Feeling on skin Facility Pharmacists not reported
Lee et. al. [47] Malaysia 2021 Yes Descriptive report of institutional experience three ABHRs, ethanol-based (70–83% ethanol) Gel No Yes Appearance, Smell, Texture, Skin tolerability, Drying effect, Speed of drying Factory n/a (Commercial entities) no specific funds
Allegranzi et. al. [18] Mali 2006–2008 No Quasi-experimental WHO formulation 1 (ethanol produced in Mali from sugar cane) not specified No Yes Appearance, Smell, Skin tolerability Facility Pharmacists UN agency, Academia (HIC), Governmental (HIC)
Fofanah et. al. [48] Sierra Leone 2022–2023 Yes Quasi-experimental WHO formulation 1 not specified No Yes Appearance, Smell, Texture, Skin tolerability, Feeling on skin, Ease of use, Drying effect, Speed of drying Facility Pharmacists, Physicians, Nurses Governmental (HIC)
de Bruin et. al. [49] South Africa 2020 Yes Cross-sectional Various types of ABHR in market tested for content, quality and safety (ethanol-based, propanol-based, or both) Rinse, Gel No No n/a Factory n/a (Commercial entities) UN agencies
Berkkan et. al. [25] Turkey 2020 Yes Cross-sectional Various types of ABHR in market tested for alcohol content (colognes containing ethanol 37.9% to 98.9% w/w) Rinse No No n/a Factory n/a (Commercial entities) not reported
Ishida et. al. [21] Uganda 2018–2022 Yes Quasi-experimental not specified not specified No No n/a Facility not specified Governmental (HIC)
Saito et. al. [19] Uganda 2014–2015 No Quasi-experimental ABHR locally made by a commercial entity, meeting international standards (Good Manufacturing Practice) (76.9 to 81.4 vol% ethanol, made from sugar care) Rinse No No n/a Factory n/a (Commercial entity) Commercial
Tusabe et. al. [50] Uganda 2019–2020 Yes Quasi-experimental WHO formulations 1 and 2 (isopropyl alcohol) Rinse No No n/a Facility Pharmacists, Laboratory technicians Governmental (HIC)
Tusabe et. al. [22] Uganda 2018–2023 Yes Quasi-experimental not specified not specified No No n/a Facility not specified Governmental (HIC)
Gudza-Mugabe et. al. [51] Zimbabwe 2015 No Quasi-experimental WHO formulation 1 not specified Yes No n/a Facility not specified Governmental (HIC)

ABHR, alcohol-based handrub; HIC, high-income country; LIC, low-income country; MIC, middle-income country; UN, United Nations; WHO, World Health Organization

Fig. 2.

Fig. 2

Countries reporting local alcohol-based hundrub production

Fig. 3.

Fig. 3

Number of publications by year of the eligible articles, categorized by the COVID-19 pandemic related vs not

Efficacy evaluation was reported for 13 articles (41.9%): of these, three (23.1%) explicitly mentioned attaining or overcoming the recommended threshold of a 5-log reduction in bacterial load, for bacterial agents commonly found as human colonizers or pathogens (Escherichia coli, Staphylococcus aureus, Pseudomonas aeruginosa, and/or Enterococcus hirae) [16]. Seven (53.8%) reported a significant reduction in bacterial load for pathogens belonging to Enterobacterales, Staphylococci and/or Micrococci, while the remaining three articles (23.1%) simply declared the efficacy of the locally produced formulation without reporting precise figures.

Organoleptic evaluation was conducted in 12/31 articles (38.7%): among these, the vast majority assessed skin tolerability/feeling on skin (9/12, 75.0%) and appearance (8/12, 66.7%) of the ABHR produced, around half of the studies evaluated smell (6/12, 50.0%) and texture (5/12, 41.7%), while only 2 studies (16.7%) assessed additional parameters such as ease of use and drying speed.

Discussions

The scoping review provides a global synthesis in more than a decade of local ABHR production within healthcare settings in LMICs. Thirty-one studies from 19 countries were identified, with more than half published during the COVID-19 pandemic. Although both facility-level production and factory-level manufacturing were reported, the overall volume of evidence remains limited relative to global need. This suggests that sustained access to ABHR, an essential IPC imperative, likely continues to pose challenges in many LMICs. The marked increase in production during the COVID-19 pandemic, reflects both the adaptive capacity of local systems under crisis conditions and the vulnerability of supply chains dependent on emergency-driven responses given the fact that the increase was only observed in response to the pandemic rather than during normal times.

Since ABHR was found to be effective in improving hand hygiene in health care [17], WHO has been advocating to improve “system change,” the first element of multi-modal improvement strategy, including local ABHR production at health-facility level. ABHR enables hand hygiene to be performed at point of care in healthcare setting, and has been shown to be effective in resource limited settings where access to soap and water is limited [18, 19], Therefore, access to ABHR is a key to successful hand hygiene promotion in LMICs. Historically, the needs for ABHR also surged during outbreaks, such as Ebola virus diseases in West Africa [20]. This scoping review has revealed that ABHR is now manufactured at factory level, using locally available ingredients, in addition to previously reported local ABHR production mainly led by pharmacists at health-facility level. Both types of local ABHR production were likely promoted during the COVID-19 pandemic, as studies relevant to the COVID-19 pandemic accounted for more than half of the articles included in this review.

However, more than half of the included articles were single-year studies, mainly cross-sectional studies, and most funded studies were supported by grants from HICs, risking the sustainability of local ABHR production, particularly given the post-COVID-19 pandemic period. The scoping review also reaffirms that pharmacists remain as a focal point for health-facility level production, and though some reported district-level approach, engaging multiple sites [21, 22]. the scalability and task-shifting may be a challenge. The predominance of pharmacist-led production confirms that existing pharmaceutical infrastructure remains central to implementation, yet scaling beyond institutional pilots is limited.

Quality control emerged as a persistent and critical gap. The 2011 WHO global assessment identified quality control as a major barrier [9], and this review reconfirms that challenge. Although a diversity of formulations and formats is now being produced, fewer than half of the studies conducted efficacy or organoleptic evaluations. Among those that did, reporting was often incomplete and rarely benchmarked against international standards. Concerns regarding the quality of ABHR available on the market, particularly during the COVID-19 pandemic, further highlight the need for robust, standardized quality assurance mechanisms [2325]. Strengthening regulatory capacity, establishing national or regional quality-control laboratories, and implementing routine monitoring frameworks are essential to safeguard product quality, protect patient safety, and support national IPC programme goals. Improved reporting of local production efforts would also facilitate benchmarking, guide targeted investment, and ensure alignment with global action plans for hand hygiene [26, 27].

This review has limitations. First, only English-language, peer-reviewed studies were included; relevant evidence in the grey literature or in other languages may have been missed. Nevertheless, the systematic search across major databases supports the robustness of the evidence identified. Second, authors of primary studies were not contacted, and some details, particularly concerning production processes, cost, and quality-control approaches may be incomplete. Further research, ideally using global or regional surveys of IPC practitioners and ABHR producers, is warranted to capture operational realities, including financial structures such as external grant funding and domestic health finance, sustainability and scalability considerations, and organizational models at facility, district, and national levels.

Conclusions

Local ABHR production has expanded, particularly during the COVID-19 pandemic, yet remains inconsistently documented and largely dependent on short-term, externally funded initiatives. This scoping review highlights persistent challenges related to sustainability, scalability, and quality assurance, including limited reporting of efficacy testing and reliance on facility-based pharmacist-led production. Strengthening long-term, in-country capacity for quality-controlled ABHR production will require integration into national IPC programmes, incorporation into essential-medicine and supply-chain systems, establishment of robust monitoring and reporting mechanisms, and sustained regulatory oversight to ensure product safety and reliability.

Supplementary Information

Acknowledgements

We thank Kavita Kothari for the literature search service, and Joanna Bauer-Savage for the valuable advice regarding this manuscript.

Abbreviations

ABHR

Alcohol-based handrub

HICs

High-income-countries

IPC

Infection prevention and control

JBI

Joanna Briggs Institute

LMICs

Low- and middle-income countries

PRISMA-ScR

Preferred reporting items for systematic reviews and meta-analyses extension for scoping reviews

SDGs

Sustainable development goals

UHC

Universal health coverage

UNICEF

United Nations Children’s Fund

WaSH

Water, sanitation and hygiene

WHO

World Health Organization

Author contributions

HS designed the study. HS, ET, and JG performed literature screening, study selection and data extraction of the scoping review. HS conducted the descriptive analysis. HS drafted the first manuscript. All authors (HS, ET, JG, DP and BA) revised the manuscript for important intellectual content.

Funding

World Health Organization provided the funding.

Data availability

All data and materials generated during the current study are available from the corresponding author on reasonable request.

Declarations

Ethics approval and consent to participate

The protocol of the scoping review was pre-registered at https://osf.io/3ka54. Ethics approval was not indicated as this study was a review of published articles.

Competing interests

HS previously received a research fund provided by Saraya East Africa Co. Ltd. An article funded by them was identified and included in the scoping review. ET and DP are Editors on the journal.

Footnotes

Publisher's Note

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

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Associated Data

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

Supplementary Materials

Data Availability Statement

All data and materials generated during the current study are available from the corresponding author on reasonable request.


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