Insecticide-treated net utilization and associated factors among pregnant women in East Africa: evidence from the recent national demographic and health surveys, 2011–2022
Malaria Journal volume 22, Article number: 349 (2023)
The pregnant woman, the fetus, and the newborn child are all at risk from malaria infection in sub-Saharan Africa. Employing insecticide-treated mosquito nets (ITNs) is one of the most efficient methods for avoiding malaria among expectant mothers. However, there is no literature that describes ITN use among pregnant women in East Africa or the contributing factors. Therefore, this study sought to identify the factors affecting pregnant women’s ITN utilization in East Africa.
The most recent DHS (Demographic and Health Survey) data for the 11 East African countries from 2011 to 2022 was used. 13,729 pregnant women were examined. To identify factors associated with ITN use, a binary and multiple logistic regression model was built. Variables having a p-value of less than or equal to 0.2 in the binary logistic regression analysis were taken into consideration for the multivariable analysis. In the multiple logistic regression analysis, the adjusted Odds Ratio (aOR) with the 95% Confidence Interval (CI) was provided to proclaim the statistical significance and degree of correlation.
The survey found that just 47.05% (95% CI 46.21, 47.88) of pregnant mothers reported using ITNs. The highest and lowest values were seen in Uganda (64.13%) and Zimbabwe (6.08%). Women age 25-34y (aOR = 1.19; 95% CI 1.11, 1.29), 35–49y (aOR = 1.26; 95% CI 1.13, 1.41) as compared to 15–24 years, poorer (aOR = 1.15; 95% CI 1.04–1.27), middle (aOR = 1.21; 95% CI 1.09, 1.35), and rich (aOR = 1.18; 95% CI 1.06, 1.31) wealth indexes as compared to poorest, having > 5 family size (AOR = 0.84; 95% CI 0.78, 0.91) primary (aOR = 1.49; 95% CI 1.36, 1.65), and secondary/higher education (aOR = 1.52; 95% CI 1.35, 1.70) as compared to not educated, and married women (aOR = 1.64; 95% CI 1.44, 1.86) have shown a statistically significant association with ITN utilization among pregnant women.
With a variety of risk variables, including age, wealth, family size, and education, pregnant women in East Africa rarely use ITNs. There is a need to create and strengthen malaria prevention programmes, especially among pregnant women who do not use ITNs, based on the variables mentioned.
Malaria is a disease that may be prevented and treated, yet it nevertheless has a terrible effect on people’s health and way of life all over the world, especially in tropical nations [1, 2]. Pregnancy-related malaria is a recognized medical emergency that must be treated in a health facility setting to avoid future negative effects, such as maternal fatalities [3, 4]. The World Health Organization (WHO) estimated that there were more than 241 million cases of malaria and 0.6 million fatalities worldwide in 2021 . Additionally, between 24 and 40% of expectant mothers globally were exposed to malaria during pregnancy [5, 6]. According to the recent WHO report, the highest prevalence of malaria exposure during pregnancy was 40.7% in West Africa, followed by 39.8% in Central Africa, and 20% in East and Southern Africa . Compared to non-pregnant women, pregnant women have a threefold increased chance of developing severe malaria and a twofold increased risk of death . Infants under five and pregnant women are among the group of people who have a notably higher chance of suffering from a serious illness [5, 7].
Anaemia, intrauterine growth restriction (IUGR), and other issues like low birth weight, preterm delivery, and trans placental parasitaemia are commonly linked to malaria [8,9,10]. For instance, in malaria-endemic areas, 20% of all low-birthweight newborns and one-fourth of all cases of severe maternal anaemia are brought on by malaria . However, 13.3 million (33%) of the predicted 40 million pregnancies in the 38 African nations with moderate to high transmission in 2021 were affected by malaria.
The use of insecticide-treated bed nets (ITN), intermittent preventive therapy with sulfadoxine–pyrimethamine (IPTp-SP), and early case detection are methods for preventing malaria during pregnancy, according to a WHO guideline [11,12,13]. As a result, it is advised that all expecting mothers sleep under an ITN as early as possible in their pregnancy—ideally, before being pregnant. The pregnant woman and her fetus will be protected against malaria if an ITN is given at the initial point of contact [13, 14]. According to studies, 28 million pregnant women in sub-Saharan Africa do not obtain ITN services, despite the fact that the majority of the continent government accepted the WHO standards for malaria prevention [5, 14,15,16].
Several reports show that the use of ITNs is extremely low among pregnant women (PW) and children under the age of five (UC5) in sub-Saharan Africa [17, 18]. Poor ITN utilization is a result of various sociodemographic related factors, low levels of knowledge and awareness, as well as ITN-related factors (such as ITN accessibility, adequacy, quality, physical condition, maintenance, replacement, and efficacy) [19,20,21,22]. These elements, however, could change over time and in different environments.
This study sought to evaluate the use of ITN among pregnant women in the area using recent nationally representative data. The results of this study will give policy makers, implementers, and scholars updated information about the proportion of pregnant women who use ITNs in the region.
Study setting and period
Demographic and health survey data from 2011 to 2022 secondary analysis of data from the East African nations of Burundi, Kenya, Comoros, Madagascar, Malawi, Mozambique, Rwanda, Tanzania, Uganda, Zambia, and Zimbabwe, was performed using the most recent demographic and health survey (DHS).
The demography and health survey (DHS) program’s official database (www.measuredhs.com), was used to obtain the data. Population, health, and nutrition monitoring and impact evaluation indicators can be used using data from demographic and health surveys, which are nationally representative household surveys. The DHS employs a stratified two-stage cluster design, with enumeration areas (EA) being the first stage and a sample of homes being picked from each EA in the second. Comprehensive survey methodology . Person record (PR) databases were employed in each nation for this investigation. All pregnant women aged 15 to 49 who were chosen and interviewed for the use of ITN on the previous night in each nation provided the data. Sampling weights are correction factors that are added to each case in tabulations to account for variations in cases’ probabilities of being chosen and interviewed for an interview within a sample, whether by design or accident. To increase the number of cases available (and hence decrease sample variability) for specific locations or subgroups for whom data are required, the sample in DHS surveys is typically picked with unequal probability. In this instance, weightings must be used when statistics are tabulated in order to provide the appropriate representation. Corrections for varying response rates are also made when weightings are determined as a result of sample design. In this study a weighted sample of 13,729 pregnant women from each of the 11 East African nations whose DHS surveys we used were included in the study (Table 1).
Women who were expecting at the time of the survey were the target demographic. All women who regularly resided in the chosen houses as well as those who stayed the night before the survey were eligible to participate in the interview process. In the study’s final analysis, a weighted sample of 13,729 pregnant women was used.
Variables of the study
Outcome variable: the outcome variable of the study was percentage of pregnant women age 15–49 who slept the night before the survey under an insecticide-treated net (ITN). A factory-treated net that does not need any additional treatment is known as an insecticide-treated net (ITN). This is also referred to as a long-lasting insecticidal net (LLIN). If the pregnant women reported sleeping with an ITN, the response variable was coded as “Yes” = 1 unless it was “No” = 0, respectively. Any missing data was examined in accordance with the DHS statistics guide .
The independent variables were the ages of the women (15–24, 25–34, 35–49), their educational level (no education, primary, secondary/higher), their working status (working, not working), their wealth index (poorest, poorer, middle, rich), the sex of the household head (male, female), the household size (less than or equal to five, six and more), the current marital status of women (never in a union, married, widowed/divorced/separated), number of under five children (one, two, and more than two), having at least one types mass media exposure either watching to television, listening to radio, or reading to magazines or book (yes/no), person who usually decides on respondent’s health (respondent herself, together with husband/partner, husband alone, other relatives), distance from health facility (a big problem/not a big problem), husband education (not educated, primary, secondary or higher), husband working status (currently working/not currently working), visited by health field work (yes/no), visited health facilities in the last 12 months (yes/no), parity (first, second or third, fourth and above), and residence types (urban/rural),
Data management and statistical analysis
Stata version 17 is used to extract, recode, and analyse data. Weighting was used throughout the study to ensure representativeness and non-response rate, as well as to obtain a suitable statistical estimate (robust standard error) . The intra-class correlation (ICC) coefficient was used to analyse the data because it could be hierarchical; however, because it was only about 2.5%, it did not fulfill the minimal requirement to be used in the study. Thus, it was shown that traditional logistic regression was more effective than the multilevel model.
Variables with a p-value of 0.2 or below in the bivariable analysis were considered for the multivariable analysis. The multivariable logistic model was used to identify the characteristics that are related to ITN usage among pregnant women and produced the adjusted Odds Ratio (aOR) with 95% Confidence Interval (CI) that best fits the model. Descriptive metrics, such as frequency count and proportion for categorical data, were utilized to summarize the descriptive data. Bivariable logistic regression was used to choose potential variables for multiple logistic regression. A logistic model was fitted to test for multicollinearity among the independent variables using the variance inflation factor. The overall fitness of the final regression model was further assessed using the Hosmer and Lemeshow test. The statistical significance threshold for the final model was set at p 0.05.
Sociodemographic characteristics of the study participants
This survey comprised weighted samples of pregnant women from 13,729 in East Africa. In terms of age of the women, approximately 6163 (44.89%) of them were from 15 to 24 years old range. Similarly, about 10,854 (79.05%) of them were male household heads. In terms of educational level, slighter more than half 7069 (51.48%) of the participants had enrolled in primary education. Regarding household wealth index about 5198 (36.86%), of them were found in the rich wealth quantile. Furthermore, more than half 10,252 (74.67%), and 8861 (64.54%) of the households have only one under five children, and less than six family members, respectively. About 9125 (66.46%) of women have at least one type of mass media exposure (either watching television, listening to radio or reading books/magazines). The majority of women, 11,682 (85.09%) and 10,368 (75.51%), were married and came from rural areas, respectively. Similarly, majority 9,458 (68.78%) of women have more than 3rd parity. Only 959 (12.53%) of them can make a decision to their own healthcare access (Table 2).
Factors associated with ITN utilization among east African pregnant women
The odds of ITN use was (AOR = 1.19; 95% CI 1.11, 1.29), and (AOR = 1.26; 95% CI 1.13, 1.41) times higher among pregnant women aged from 25 to 34, and 35 to 49 as compared to those whose age is from 15 to 24 years old, respectively. Similarly, those women from poorer, middle, and rich households had shown 1.15 (AOR = 1.15; 95% CI 1.04, 1.27), 1.21 (AOR = 1.21; 95% CI 1.09 1.35), and 1.18 (AOR = 1.18; 95% CI 1.06, 1.31) times higher odds of ITN use, respectively, as compared to those from poorest households. Women from household size of above five had 16% (AOR = 0.84; 95% CI 0.78, 0.91) lower odds of ITN use as compared to those households with below six household size. Women who had completed their primary, and secondary/higher educational levels have shown 1.49 (AOR = 1.49; 95% CI 1.36, 1.65), and 1.52 (AOR = 1.52;95% CI 1.35, 1.70) times to utilize ITN compared to uneducated pregnant women, respectively. As compared to never married women, those married women have shown 1.64 (AOR = 1.64; 95% CI 1.44, 1.86) more times to utilize ITN during their pregnancy period (Table 3).
Prevalence of ITN utilization among pregnant women
The overall utilization of ITN by pregnant women in East Africa was about 47.05% (95% CI 46.21, 47.88). Uganda, and Zimbabwe have shown the highest and lowest prevalence of 64.13%, and 6.08% ITN utilization among pregnant women, respectively (Fig. 1).
The current study was done to analyse the prevalence and parameters related with ITN usage among pregnant women in East Africa to give crucial information about this group because there has not been any research regarding ITNs utilization among pregnant women in East Africa. The survey found that just 47.05% of expectant mothers used ITN. This utilization is higher than that of some other malaria-endemic nations like Uganda (35%) , and Ethiopia (39.9%) , however, it is also lower than that of other nations like the Democratic Republic of the Congo (71.4%) , Mozambique (68.4%) , and Ghana (61%) . However, a logical argument would be that different countries have varied malaria management tactics since they have diverse malaria risk levels due to varying climatic and geographic conditions. Additionally, the time of year during which data was gathered may be a factor, since more people use mosquito nets when malaria transmission is at its highest, which typically coincides with wet/rainy seasons . This emphasizes how important it is to maintain bed net availability, early procurement, and education/sensitization on mosquito bed net usage. Prior studies, and this study descriptive results have shown that access remains a major impediment to the use of mosquito bed nets; consequently, a readily available supply greatly enhances their use [32, 33].
Regarding maternal age, this study found that older pregnant women were more likely to use ITN than younger women. These results concur with earlier research works [34,35,36], which may be because older women are more likely to have had previous pregnancies, lived experiences with pregnancy, or even negative effects of malaria, better communication, financially independent, better healthy behaviour with society, and positive attitudes, making them more likely to grasp the significance of using mosquito bed nets.
Additionally, this study revealed that married women had higher likelihood of using ITN than women who had never been married. Substantial prior literatures from Rwanda, Ghana, and Nigeria have revealed similar association regarding marital status, and ITN utilization among pregnant women [34, 37, 38]. The support of spouses or partners, desired pregnancy, improved ANC follow-ups, and community involvement are all wonderful opportunities for married women to develop their interpersonal skills and knowledge [39, 40].
It is observed that the use of ITN had a favourable correlation with a higher household wealth index. In Nigeria, pregnant women’s use of ITN has previously been linked positively to the household wealth index [34, 41, 42]. Wealthier individuals have a better chance of healthcare access, and education . Although ITNs are typically given away free of charge to expectant mothers, purchasing ITNs may occasionally be necessary owing to ITN shortages, and the poorest people may be neglected . The process of improving Universal Health Coverage is still ongoing . Poorest and struggling rural households work incredibly hard to make a living wage so they can pay for healthcare and their daily needs.
The study found a negative correlation between using ITN and having a big family size (more than five). This could have a number of causes, including an imbalance between family size and the number of ITN, bed rooms, or separate sleeping areas. As shown by the study from Uganda and Ethiopia, using ITNs in single-room homes could be difficult due to a lack of convenient space that does not permit mosquito net hanging [45, 46]. It is advised to make ITN consistently available, to provide ITN in accordance with their quantity, and to encourage their use among these huge family sizes.
The results of this study also show that respondents’ educational status had an impact on how they used ITN. Primary-level and higher educated respondents were 1.49 and 1.52 times more likely to use ITN than respondents without a formal education enrollment, respectively. Higher educational status respondents were more likely to use ITN than respondents with little formal education, according to other research conducted in Cameroon , Nigeria , sub-Saharan Africa , and Uganda . The association may exist because educated mothers find it simple to read and comprehend information about ITN and malaria. In addition, educated mothers may seek medical attention and consult books, periodicals, and newsletters. In addition, educated mothers may also experience improved empowerment and financial security. Consequently, the impact of transportation costs, cultural barriers, and male dominance may be negligible among educated women.
The findings apply to all pregnant women in the area since we used a weighted dataset from the most recent national DHS. The study offers insightful data as a first look at ITN use and its contributing factor among this unique group in the East African region. Additionally, DHS uses higher sample sizes and standardized high-quality data gathering techniques, which allows to compare the results to those of other nations. The usage of ITNs is socially desirable, and the majority of the data were self-reported with no record justification, thus there is a danger of information and recollection bias. The accuracy of the estimate of women’s ITN use may have been impacted by this. Due to the inconsistent timeliness of the data, this study examined and contrasted different countries without taking temporal variation into account as an independent variable. This might have an impact on the study’s findings. Therefore, care should be taken when applying this study’s conclusions. A more thorough comparison of the observed correlates with other nations/regions was constrained by the absence of precise information on malaria prevention and control in other countries. Additionally, because ITN usage was only evaluated the night before the survey, it might not fully reflect the usage pattern over time.
The percentage of East African pregnant women utilizing ITNs is regarded as low by the WHO and the sustainable development goals (SDGs) plans. This study investigated the association between individual and societal characteristics and the use of ITN among pregnant women in East Africa using the most recent DHS records. The age of the women, wealth position, household size, married status, and educational attainment were characteristics in the final model that were linked to ITN use. Therefore, it is suggested to spread information about the malaria prevention programme more widely through the media, considering community campaigns and ITN distribution based on family size. Additionally, households with low levels of income should be given special consideration, and additional research should be conducted by taking important factors like knowledge and attitude, perception, and other culturally pertinent characteristics into account.
Availability of data and materials
All data concerning this study are accommodated and presented in this document. The detailed data set can be freely accessible from the www.dhsprogram.comwebsite.
Kajfasz P. Malaria prevention. Int Marit Health. 2009;60:67–70.
WHO. External evaluation of the national malaria control programme Myanmar, 6–19 March 2016. World Health Organization, Country Office for Myanmar; 2017.
Schantz-Dunn J, Nour NM. Malaria and pregnancy: a global health perspective. Rev Obstet Gynecol. 2009;2:186.
Ministry of Health and Sports. National strategic plan: intensifying malaria control and accelerating progress towards malaria elimination (2016–2020). Myanmar; 2016.
WHO. World malaria report 2022. Geneva: World Health Organization; 2022.
Monroe A, Williams NA, Ogoma S, Karema C, Okumu F. Reflections on the 2021 world malaria report and the future of malaria control. Malar J. 2022;21:154.
diseases NIoAai. Malaria prevention, treatment, and control strategies. https://www.niaid.nih.gov/diseases-conditions/malaria-strategies. 2011.
WHO. Global technical strategy for malaria 2016–2030. Geneva: World Health Organization; 2015.
Millar K. The need for malaria integration in maternal and newborn health. Boston: Maternal Health Task Force; 2014.
Shaukat AM, Gilliams EA, Kenefic LJ, Laurens MB, Dzinjalamala FK, Nyirenda OM, et al. Clinical manifestations of new versus recrudescent malaria infections following anti-malarial drug treatment. Malar J. 2012;11:207.
Cohee LM, Kalilani-Phiri L, Mawindo P, Joshi S, Adams M, Kenefic L, et al. Parasite dynamics in the peripheral blood and the placenta during pregnancy-associated malaria infection. Malar J. 2016;15:483.
WHO. Policy brief for the implementation of intermittent preventive treatment of Malaria in pregnancy using sulfadoxine–pyrimethamine (IPTp-SP). Geneva: World Health Organization; 2014.
WHO. World report on ageing and health. Geneva: World Health Organization; 2015.
WHO. Recommendations on antenatal care for a positive pregnancy experience: summary: highlights and key messages from the World Health Organization’s 2016 global recommendations for routine antenatal care. Geneva: World Health Organization; 2018.
Araya GD, Reda HL, Tesema AG. Utilization of long lasting insecticidal nets among household in malarious areas of Raya Alamata District, Tigray, Ethiopia. Sci J Public Health. 2015;3:216–21.
Elmosaad YM, Elhadi M, Khan A, Malik EM, Mahmud I. Communication for behavioural impact in enhancing utilization of insecticide-treated bed nets among mothers of under-five children in rural North Sudan: an experimental study. Malar J. 2016;15:509.
Alonso P, Noor AM. The global fight against malaria is at crossroads. Lancet. 2017;390:2532–4.
Omer SA, Idress HE, Adam I, Abdelrahim M, Noureldein AN, Abdelrazig AM, et al. Placental malaria and its effect on pregnancy outcomes in Sudanese women from Blue Nile State. Malar J. 2017;16:374.
Debo GW, Kassa DH. Prevalence of Malaria and associated factors in Benna Tsemay district of pastoralist community, southern Ethiopia. Trop Dis Travel Med Vaccines. 2016;2:16.
Atkinson J-AM, Fitzgerald L, Toaliu H, Taleo G, Tynan A, Whittaker M, et al. Community participation for malaria elimination in Tafea Province, Vanuatu: Part I. Maintaining motivation for prevention practices in the context of disappearing disease. Malar J. 2010;9:93.
Dombrowski JG, Souza RMd, Silva NRM, Barateiro A, Epiphanio S, Gonçalves LA, et al. Malaria during pregnancy and newborn outcome in an unstable transmission area in Brazil: a population-based record linkage study. PLoS ONE. 2018;13: e0199415.
Yirsaw AN, Gebremariam RB, Getnet WA, Mihret MS. Insecticide-treated net utilization and associated factors among pregnant women and under-five children in East Belessa District, Northwest Ethiopia: using the health belief model. Malar J. 2021;20:130.
Croft TN, Marshall AM, Allen CK, Arnold F, Assaf S, Balian S. Guide to DHS statistics. Rockville: ICF; 2018. p. 645.
Croft T, Marshall AM, Allen CK, Arnold F, Assaf S, Balian S, et al. Guide to DHS statistics: DHS-7 (version 2). Rockville: ICF; 2020.
Elkasabi M. Sampling and weighting with DHS data. https://blog.dhsprogram.com/sampling-weighting-at-dhs/. 2015.
Obol J, Ononge S, Orach C. Utilisation of insecticide treated nets among pregnant women in Gulu: a post conflict district in northern Uganda. Afr Health Sci. 2013;13:962–9.
Tesfaye T, Mengistie Alemu B, Egata G, Bekele H, Taye Merga B, Eshetu B, et al. Insecticide-treated nets utilization and associated factors among pregnant women in Miesso Woreda, Eastern Ethiopia: observational study. Int J Womens Health. 2022;14:445–53.
Inungu JN, Ankiba N, Minelli M, Mumford V, Bolekela D, Mukoso B, et al. Use of insecticide-treated mosquito net among pregnant women and guardians of children under five in the Democratic Republic of the Congo. Malar Res Treat. 2017;2017:5923696.
Moon TD, Hayes CB, Blevins M, Lopez ML, Green AF, Gonzalez-Calvo L, et al. Factors associated with the use of mosquito bed nets: results from two cross-sectional household surveys in Zambézia Province, Mozambique. Malar J. 2016;15:196.
Ernst KC, Erly S, Adusei C, Bell ML, Kessie DK, Biritwum-Nyarko A, et al. Reported bed net ownership and use in social contacts is associated with uptake of bed nets for malaria prevention in pregnant women in Ghana. Malar J. 2017;16:13.
Karema C, Wen S, Sidibe A, Smith JL, Gosling R, Hakizimana E, et al. History of malaria control in Rwanda: implications for future elimination in Rwanda and other malaria-endemic countries. Malar J. 2020;19:356.
Bhatt S, Weiss DJ, Mappin B, Dalrymple U, Cameron E, Bisanzio D, et al. Coverage and system efficiencies of insecticide-treated nets in Africa from 2000 to 2017. Elife. 2015;4: e09672.
Olapeju B, Choiriyyah I, Lynch M, Acosta A, Blaufuss S, Filemyr E, et al. Age and gender trends in insecticide-treated net use in sub-Saharan Africa: a multi-country analysis. Malar J. 2018;17:423.
Kawuki J, Donkor E, Gatasi G, Nuwabaine L. Mosquito bed net use and associated factors among pregnant women in Rwanda: a nationwide survey. BMC Pregnancy Childbirth. 2023;23:419.
Mwandama D, Gutman J, Wolkon A, Luka M, Jafali J, Ali D, et al. The use of intermittent preventive treatment in pregnancy and insecticide-treated bed nets for malaria prevention by women of child-bearing age in eight districts in Malawi. Malar J. 2015;14:316.
Mekuria M, Binegde DN, Derega J, Teferi Bala E, Tesfa B, Deriba BS. Insecticide-treated bed net utilization and associated factors among households in Ilu Galan District, Oromia Region, Ethiopia. Environ Health Insights. 2022;16:11786302221078122.
Dun-Dery F, Kuunibe N, Meissner P, Winkler V, Jahn A, Müller O. Determinants of the use of insecticide-treated mosquito nets in pregnant women: a mixed-methods study in Ghana. Int Health. 2022;14:619–31.
Wagbatsoma V, Aigbe E. ITN utilization among pregnant women attendinganc in Etsako West Lga, Edo State, Nigeria. Niger J Clin Pract. 2010;13:144–8.
Ezeama M, Ezeamah F. Use of insecticide treated nets among pregnant women in Nigeria. Geneva Health Forum. 2013.
Ukibe S, Mbanugo J, Ukibe N, Ikeakor L. Level of awareness and use of insecticide treated bed nets among pregnant women attending antenatal clinics in Anambra State, South Eastern Nigeria. J Public Health Epidemiol. 2013;5:391–6.
Ameyaw EK, Adde KS, Dare S, Yaya S. Rural–urban variation in insecticide-treated net utilization among pregnant women: evidence from 2018 Nigeria demographic and Health Survey. Malar J. 2020;19:407.
Aung PL, Win KM, Show KL. Utilization of insecticide-treated bed nets among pregnant women in Myanmar—analysis of the 2015–2016 demographic and health survey. PLoS ONE. 2022;17: e0265262.
Tapera O. Determinants of long-lasting insecticidal net ownership and utilization in malaria transmission regions: evidence from Zimbabwe demographic and health surveys. Malar J. 2019;18:278.
Nikoloski Z, McGuire A, Mossialos E. Evaluation of progress toward universal health coverage in Myanmar: a national and subnational analysis. PLoS Med. 2021;18: e1003811.
Bashinyora JB. Utilisation of insecticide treated nets in households with children under 5 years in Muhorro Sub County, Kibaale District, Uganda. Thesis, Kampala: Makerere University. 2010.
Sena LD, Deressa WA, Ali AA. Predictors of long-lasting insecticide-treated bed net ownership and utilization: evidence from community-based cross-sectional comparative study, Southwest Ethiopia. Malar J. 2013;12:406.
Idowu A, Popoola GO, Akintunde B, Olowookere SA, Deji SA. Ownership and use of insecticide treated nets in selected rural communities of Oyo state, Nigeria: implication for policy action. Am J Public Health Res. 2016;4:222–9.
Ugwu E, Ezechukwu P, Obi S, Ugwu A, Okeke T. Utilization of insecticide treated nets among pregnant women in Enugu, South Eastern Nigeria. Niger J Clin Pract. 2013;16:292–6.
Balami A, Said SM, Zulkefli NAM. A review on factors influencing the adoption of malaria preventive practices among pregnant women in sub-saharan Africa. J Adv Rev Sci Res. 2016;28:25–32.
Kimbi HK, Nkesa SB, Ndamukong-Nyanga JL, Sumbele IUN, Atashili J, Atanga MBS. Socio-demographic factors influencing the ownership and utilization of insecticide-treated bed nets among malaria vulnerable groups in the Buea Health District, Cameroon. BMC Res Notes. 2014;7:624.
We would like to acknowledge the DHS program for providing permission for this study following research ethics.
This study was not supported financially by anyone.
Ethics approval and consent to participate
The study was conducted after obtaining a permission letter from www.dhsprogram.com on an online request to access East African DHS data after reviewing the submitted brief descriptions of the survey to the DHS program. The datasets were treated with the utmost confidence. This study was done based on secondary data from East Africa DHS. Issues related to informed consent, confidentiality, anonymity, and privacy of the study participants are already done ethically by the DHS office. We did not manipulate and apply the microdata other than in this study. There was no patient or public involvement in this study.
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Terefe, B., Habtie, A. & Chekole, B. Insecticide-treated net utilization and associated factors among pregnant women in East Africa: evidence from the recent national demographic and health surveys, 2011–2022. Malar J 22, 349 (2023). https://doi.org/10.1186/s12936-023-04779-w