Gender-Associated Factors on the Occurrence and Prevalence of Zero-Dose Children in Sub-Saharan Africa: A Critical Literature Review
Abstract
1. Introduction
2. Methods
2.1. Study Design
2.2. Research Question and Study Eligibility
2.3. Literature Sources
2.4. Search Strategy
2.5. Title, Abstract, Full-Text Screening
2.6. Data Abstraction and Analysis
3. Results
3.1. Characteristics of Included Articles
3.2. Gender-Related Barriers to Routine Immunisation Service Delivery
4. Discussion
4.1. Gendered Power Dynamics and Decision-Making Autonomy
4.2. Male Engagement and Gender Roles
4.3. Maternal Education, Knowledge, and Age
4.4. Health System Responsiveness and Service Design
4.5. Socioeconomic and Structural Inequities
4.6. Cultural and Social Norms
5. Recommendations
6. Strengths and Limitations of the Review
7. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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| Criteria | Determinants |
|---|---|
| Population | Children (0–5 years) and their caregivers (with a focus on gender-related influences) |
| Concept | Gender-related barriers to uptake and access to routine immunisation services |
| Context | Sub-Saharan Africa |
| Search Strategy | Number of Articles Retrieved |
|---|---|
| Gender-related[All Fields] AND barriers[All Fields] OR (“vaccination hesitancy”[MeSH Terms] OR (“vaccination”[All Fields] AND “hesitancy”[All Fields]) OR “vaccination hesitancy”[All Fields] OR (“vaccine”[All Fields] AND “hesitancy”[All Fields]) OR “vaccine hesitancy”[All Fields]) OR (“decision making”[MeSH Terms] OR (“decision”[All Fields] AND “making”[All Fields]) OR “decision making”[All Fields]) OR (“education”[Subheading] OR “education”[All Fields] OR “educational status”[MeSH Terms] OR (“educational”[All Fields] AND “status”[All Fields]) OR “educational status”[All Fields] OR “education”[MeSH Terms]) OR “cultural”[All Fields]) AND practices[All Fields]) OR (“social norms”[MeSH Terms] OR (“social”[All Fields] AND “norms”[All Fields]) OR “social norms”[All Fields]) OR (“economic factors”[MeSH Terms] OR (“economic”[All Fields] AND “factors”[All Fields]) OR “economic factors”[All Fields]) OR (“health equity”[MeSH Terms] OR (“health”[All Fields] AND “equity”[All Fields]) OR “health equity”[All Fields]) OR (“child health”[MeSH Terms] OR (“child”[All Fields] AND “health”[All Fields]) OR “child health”[All Fields]) AND routine[All Fields] AND (“immunisation”[All Fields] OR “vaccination”[MeSH Terms] OR “vaccination”[All Fields] OR “immunisation”[All Fields] OR “immunisation”[MeSH Terms]) AND (“2015/05/21”[PDat]: “2025/05/21”[PDat]) | 2685 (PubMed), 986 Google Scholar |
| First Author, Publication Year | Reference | Country/Region | Publication Type | Study Design | Study Population |
|---|---|---|---|---|---|
| Yibeltal K, 2019 | [19] | Ethiopia | Journal article | Demographic and Health Survey | Mothers with live children aged 12–23 months |
| Asabu MD, 2022 | [20] | Ethiopia | Journal article | Systematic review and meta-analysis | Not specified |
| Desalew A, 2020 | [21] | Ethiopia | Journal article | Systematic review and meta-analysis | Children aged 12–23 months |
| Tilahun B, 2020 | [22] | Ethiopia | Journal article | Scoping review and Delphi method | Not specified |
| Ebot JO, 2015 | [23] | Ethiopia | Journal article | Demographic and health survey | Children aged 12–30 months of married women aged 15–49 years |
| Bangura JB, 2020 | [24] | Sub-Saharan Africa | Journal article | Systematic review | Not specified |
| Amoah A, 2023 | [25] | Sub-Saharan Africa | Journal article | Demographic and health survey | Children aged 12–23 months |
| Gelagay AA, 2021 | [26] | Ethiopia | Journal article | Cross-sectional study | Mothers of children aged 12–23 months |
| Project HOPE, Ministry of Health (Ethiopia), and Amref Health, 2022 | [27] | Ethiopia | Report | Mixed methods | Children aged 12–35 months |
| UNICEF, 2018 | [28] | Ethiopia | Report | Demographic and health survey | Children aged 12–23 months |
| Adeyanju GC, 2022 | [29] | Malawi | Journal article | Qualitative | Information was obtained from caregivers, community and religious leaders, leaders of civil society groups, and teachers in schools |
| Dheresa M, 2021 | [30] | Ethiopia | Journal article | Longitudinal | Children aged 12–24 months |
| Porth JM, 2021 | [31] | Kenya | Journal article | Cross-sectional study | Women aged 15–49 years, currently married or living with a partner, had a living child aged 12–23 months |
| Jelle M, 2023 | [32] | Somalia | Journal article | Qualitative | Female caregivers and purposively sampled nine vaccination service providers and six policy makers for interview |
| Abdallah MS, 2024 | [33] | Sudan | Journal article | Cross-sectional | Parents of children aged 6–35 months |
| Lu X, 2021 | [34] | Democratic Republic of Congo | Journal article | Cross-sectional | Women with children aged 12–23 months |
| Shearer JC, 2023 | [35] | Democratic Republic of Congo, Mozambique and Nigeria | Journal article | Qualitative | Mothers of zero-dose and under-vaccinated children in selected communities |
| Abad N, 2017 | [36] | Nigeria | Journal article | Qualitative | Administrative personnel, healthcare workers, caregivers, and community influencers |
| Gichuki, J 2024 | [37] | Kenya | Journal article | Qualitative | Caregivers of children under five years of age residing in informal settlements |
| Nabwana BW, 2019 | [38] | Uganda | Journal article | Cross-sectional | Caregivers of children under five years of age |
| Biks GA, 2024 | [39] | Ethiopia | Journal article | Qualitative | Key informants from national and regional health authorities, multilateral and NGO partners, pharmaceutical supply services, and community-level stakeholders including leaders, Health Development Army members, and caregivers |
| Tekeba B, 2025 | [40] | Ghana | Journal article | Cross-sectional | Children aged 12–25 months |
| Ngo-Bebe D, 2025 | [41] | Democratic Republic of Congo | Journal article | Cross-sectional | Children aged 12–23 months |
| Etim EOE, 2025 | [42] | Nigeria | Journal article | Qualitative | Mothers and community influencers who collaborate with healthcare workers to improve immunisation rates |
| First Author, Year | Reference | Gender-Related Barriers |
|---|---|---|
| Yibeltal K, 2019 | [19] | Wealth Inequality: The study found a significant gap in immunisation coverage between wealth quintiles. The poorest households consistently lag, indicating that economic disparities play a role in access to immunisation services. Women also often have less control over household finances, impacting their ability to prioritise immunisation. costs. Educational Disparities: Children of uneducated mothers were found to have the lowest immunisation coverage. This suggests that maternal education level influences access to and utilisation of immunisation services, indicating a gender-related barrier, as women often bear the primary responsibility for childcare. Urban-Rural Disparities: Immunisation coverage was consistently higher in urban areas compared to rural areas. Although improvements were observed in rural areas, the rural-urban inequality gap remains significant. This suggests that geographic location is a barrier, with rural populations facing challenges in accessing immunisation services. Limited transportation options in rural areas, especially for women with childcare responsibilities, can hinder reaching vaccination sites. |
| Asabu MD, 2022 | [20] | Child gender: Child gender was investigated as a factor affecting access to immunisation. There was no evidence of any gender-based discrimination in childhood immunisation in Ethiopia. |
| Desalew A, 2020 | [21] | Maternal education: Lower maternal education is linked to a higher likelihood of incomplete vaccination. Educated mothers are likely to be more aware of the benefits of vaccination schedules. Maternal knowledge: Women with a better understanding of vaccines are more likely to ensure their children are fully immunised. Maternal decision-making power: The study suggests that women with greater autonomy in decision-making are more likely to have their children fully vaccinated. In many contexts, women may not have the final say on healthcare decisions for their children. Place of delivery: Home births are associated with a higher risk of incomplete vaccination. Women delivering at health facilities receive counselling and reminders about vaccinations. |
| Tilahun B, 2020 | [22] | Low decision-making power among mothers: The paper mentions mothers as primary caregivers for child immunisation, but also highlights a study that reveals mothers have limited decision-making power. In some cultures, fathers or other male figures may hold more authority regarding healthcare decisions for children. High workload on mothers: The paper discusses mothers’ heavy workload as a barrier to full immunisation. This could be because they are responsible for childcare and household duties, making it challenging to find time for vaccinations. Lack of support from male partners: The paper identifies a lack of support from male partners as a contributing factor. This implies that mothers might need male involvement or approval for taking children to be vaccinated. |
| Ebot JO, 2015 | [23] | Financial decision-making power: Only decisions related to finances had a significant effect on partial immunisation status. In the first complete model, for example, women who reported that their husbands made the final decision on their earnings had 4.3 times higher odds of their children being partially immunised versus having no vaccines, net of all control variables. In the second complete model, joint decisions on earnings (compared to husbands making the sole earnings decision) increased the odds of children being fully immunised by 8.1 times versus not being vaccinated. |
| Bangura JB, 2020 | [24] | Poverty: Feeling ashamed of poverty-associated reasons, e.g., Mothers who thought that they could not dress smartly enough for the approval of other women at the clinic were less likely to attend. Marital status: Being a single mother was also cited as a barrier to childhood immunisation. Decision-making process: The decision for immunisation was generally a joint decision between the child’s mother and father. But it was noted with strong emphasis that women were in charge of taking children for immunisation and sometimes the husbands opposed immunisation and stopped their wives from immunising their children by denying them the social and financial support necessary. |
| Amoah A, 2023 | [25] | Gender-based violence: Children of mothers with higher acceptance toward violence were less likely to be fully immunised [aOR = 0.90, CI 0.81, 0.99]. Decision-Making Autonomy: The odds of full immunisation were higher among children born to mothers with high [aOR = 1.11, CI 1.01, 1.22] decision-making capacity. |
| Gelagay AA, 2021 | [26] | Maternal Age: Mother age >40 years (AOR = 7.37, 95% CI: 1.65, 32) was positively associated with being fully vaccinated. Women’s empowerment: Mothers who initiate vaccine uptake (women’s empowerment) (AOR = 1.57, 95% CI: 1.13–2.39) was positively associated with being fully vaccinated. ANC attendance: Mothers who had 1–3 ANC visits (AOR = 2.51, 95% CI: 1.14, 5.52), and 4+ ANC follow-up were positively associated with being fully vaccinated (AOR = 2.73, 95% CI: 1.26, 5.91). Health extension worker visits: Health extension workers’ home visit during the first weeks of the postpartum period was positively associated with being fully vaccinated (AOR = 1.76, 95% CI: 1.10, 2.84). Involvement of the male partner: Males involved in child immunisation (AOR = 3.27, 95% CI: 1.84, 5.81) were positively associated with being fully vaccinated. Birth order: Birth order of 6 and above (AOR = 0.35, 95% CI: 0.14, 0.86) was negatively associated with being fully vaccinated. |
| Project HOPE, Ministry of Health (Ethiopia), and Amref Health, 2022 | [27] | Decision-Making Autonomy: Female-headed households had higher rates of under-immunised children (72.0%) and dropout rates (56.0%). The prevalence of zero-dose and under-immunised children and dropout rates declined with women’s increasing power in household decision-making. Type of occupation: Vaccination rates did not show consistent differences across types of women’s occupation; however, women engaged in professional jobs had substantially better outcomes. Wealth index: Women’s land and house ownership are associated with lower rates of zero-dose, under-immunisation, and drop-out. Gender roles: Fathers’ support in household chores is associated with lower rates of zero-dose, under-immunisation, and drop-out. Financial decision-making power: Engagement of both partners in household resource allocation is associated with lower rates of zero-dose, under-immunisation, and drop-out. Access to information: Women’s better access to information about what is happening in the community is associated with lower rates of zero-dose, under-immunisation, and drop-out. |
| UNICEF Ethiopia, 2018 | [28] | The main determinants associated with inequalities in coverage are the geographic area where the child lives, household wealth, caregivers’ education, and place of residence (urban vs. rural). There were no significant differences in vaccination coverage between boys and girls. |
| Adeyanju GC, 2022 | [29] | Decision-making process: Husband influenced vaccination decision-making leading to the children being unvaccinated despite their mother’s willingness. |
| Dheresa M, 2021 | [30] | Age: Young maternal age (18–25 years) is associated with increased odds of partial or no vaccination. Maternal age 25–33 years increases the odds of partial immunisation. Maternal age 34–42 years increases the odds of partial immunisation. Education: Uneducated mothers have higher odds of having non-vaccinated children. Mothers who cannot read or write are more likely to have non-vaccinated children. Employment status: Unemployed mothers have increased odds of their children being partially or not vaccinated compared to housewives. |
| Porth JM, 2021 | [31] | Wealth status: Higher enabling conditions among middle-wealth women significantly increase the likelihood of having a fully vaccinated child. Middle level of empowerment among the wealthiest women is associated with a higher likelihood of full child vaccination. |
| Jelle M, 2023 | [32] | Wealth status: Single mothers without livelihoods often engage in casual labour, which limits their ability to access vaccination services. Male-dominated decision-making: husbands make the final decision on child vaccination, and if they oppose it, children remain unvaccinated. |
| Abdallah MS, 2024 | [33] | Mothers’ education: Mothers with primary education were more likely to partially vaccinate their children with the pentavalent vaccine, followed by those with secondary education, and then those with no education. Other: Parental perception of the importance of male vaccination was significantly associated with the vaccination status of children. Findings showed that about one in five parents perceived male vaccination as more important than female vaccination. |
| Lu X, 2021 | [34] | Women’s empowerment: Children of women with high levels of empowerment had higher odds of complete vaccination, with values of 1.63 (p = 0.002) and 1.59 (p = 0.012) for intrinsic agency and enabling resources of the empowerment, respectively, compared to the children of women with low levels of empowerment. |
| Shearer JC, 2023 | [35] | Most caregivers reported some difficulty juggling their gender-prescribed tasks related to childcare and domestic work with getting a child vaccinated. These difficulties were more common among caregivers who faced other financial or time-related resource barriers, whether because of poverty or because the child’s father worked or lived away from the home. Gender inequality was sometimes apparent in the caregivers’ lack of agency to decide whether to vaccinate their child. When husbands assisted with practical aspects, such as childcare or transportation, as reported by some respondents, caregivers were more likely to seek vaccination. |
| Abad N, 2017 | [36] | Patriarchal decision-making: Men control healthcare decisions and can block access to immunisation. Female disempowerment: Women lack the agency to take their children for immunisation services. For example, men use religious beliefs to justify restricting women’s actions. Women lack the power or autonomy to challenge these beliefs or make independent decisions. |
| Gichuki J, 2024 | [37] | Maternal burden of responsibility: Mothers are blamed for vaccine-preventable illness, yet lack full agency. Limited financial autonomy: Mothers often require male approval or support to cover transportation and fees. Male disengagement: Fathers are seen as supporters, not decision-makers, reinforcing gender roles. Cultural and emotional pressure: Women are expected to prioritise child health, often without adequate support. |
| Nabwana BW, 2019 | [38] | Male opposition due to misinformed beliefs: Fathers stopped immunisation because of typical post-vaccine side effects (e.g., crying). Low male knowledge about immunisation: Fathers’ ignorance about the benefits of vaccines led to opposition. Patriarchal decision-making: Fathers’ decisions override mothers’ intentions to immunise their children. |
| Biks GA, 2024 | [39] | Immunisation of children is seen as women’s responsibility: Men are socially excluded from child health roles. Lack of male engagement in immunisation: No shared decision-making or support; women face challenges alone. Fear of side effects among mothers: Mothers avoid vaccination to avoid blame or distress if their child experiences a reaction. Religious/cultural beliefs reinforce female-only roles: Past religious objections were voiced primarily by women, strengthening their sole responsibility. |
| Tekeba B, 2025 | [40] | Low female autonomy in healthcare decisions: When women lack a say in health matters, children are less likely to be vaccinated. Limited access to maternal health services: Barriers to ANC and facility delivery, often rooted in gender norms, reduce vaccine uptake. Unequal access to health information: Women in low-media-exposure areas may not receive critical immunisation messages. Regional disparities linked to gender inequality: Lower coverage in some areas may reflect entrenched patriarchal norms limiting women’s agency. |
| Ngo-Bebe D, 2025 | [41] | Sociocultural gender norms: Traditional gender roles limit women’s ability to access or promote immunisation. Lack of gender considerations in planning: Immunisation services were not initially designed with gender-specific barriers in mind. Women’s underutilised role in outreach: Before the intervention, women’s potential to mobilise communities was not fully tapped. |
| Etim EOE, 2025 | [42] | Limited female decision-making: Women lack the autonomy to seek child immunisation independently. Health provider-patient gender discordance: Male-dominated healthcare workforce restricts women’s access in conservative regions. Restricted female mobility: Cultural norms limit women’s ability to travel alone or far from home. Social norms and religious beliefs: Gender roles discourage women from engaging in public or healthcare settings. |
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Musuka, G.; Moyo, E.; Iradukunda, P.G.; Gashema, P.; Madziva, R.; Herrera, H.; Dhliwayo, T.; Mutata, C.; Mataruse, N.; Mano, O.; et al. Gender-Associated Factors on the Occurrence and Prevalence of Zero-Dose Children in Sub-Saharan Africa: A Critical Literature Review. Trop. Med. Infect. Dis. 2025, 10, 286. https://doi.org/10.3390/tropicalmed10100286
Musuka G, Moyo E, Iradukunda PG, Gashema P, Madziva R, Herrera H, Dhliwayo T, Mutata C, Mataruse N, Mano O, et al. Gender-Associated Factors on the Occurrence and Prevalence of Zero-Dose Children in Sub-Saharan Africa: A Critical Literature Review. Tropical Medicine and Infectious Disease. 2025; 10(10):286. https://doi.org/10.3390/tropicalmed10100286
Chicago/Turabian StyleMusuka, Godfrey, Enos Moyo, Patrick Gad Iradukunda, Pierre Gashema, Roda Madziva, Helena Herrera, Tapiwa Dhliwayo, Constantine Mutata, Noah Mataruse, Oscar Mano, and et al. 2025. "Gender-Associated Factors on the Occurrence and Prevalence of Zero-Dose Children in Sub-Saharan Africa: A Critical Literature Review" Tropical Medicine and Infectious Disease 10, no. 10: 286. https://doi.org/10.3390/tropicalmed10100286
APA StyleMusuka, G., Moyo, E., Iradukunda, P. G., Gashema, P., Madziva, R., Herrera, H., Dhliwayo, T., Mutata, C., Mataruse, N., Mano, O., Mbunge, E., & Dzinamarira, T. (2025). Gender-Associated Factors on the Occurrence and Prevalence of Zero-Dose Children in Sub-Saharan Africa: A Critical Literature Review. Tropical Medicine and Infectious Disease, 10(10), 286. https://doi.org/10.3390/tropicalmed10100286

