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The challenge of using intermittent preventive therapy with sulfadoxine/pyrimethamine among pregnant women in Uganda
Malaria Journal volume 15, Article number: 401 (2016)
The Uganda National Malaria Control Programme recommends the use of intermittent preventive therapy in pregnancy with sulfadoxine/pyrimethamine (SP) to prevent malaria, however, there is overwhelming evidence of low uptake of this intervention. This study, therefore, sought to examine the factors associated with taking two or more doses of therapy among women who had had the most recent live birth.
This was a secondary data analysis of the 2014 Malaria Indicator Survey dataset. The outcome was the use of two or more doses of SP for the most recent live birth while independent variables included; age, highest education attained, residence (rural and urban), use of radio and community health teams for malaria related messages, knowledge of taking SP and use of LLINS to prevent malaria, household wealth, skilled attendant seen at ANC and number of children the woman has.
Of the 1820 women included in the final analysis, 822 (45.16 %) women took two or more doses of SP. Women who knew that this therapy was used to prevent malaria and those who had been seen by a skilled attendant were 10.72 times [Adjusted OR (95 % CI): 10.72 (7.62–15.08), p-value = 0.001] and 3.19 times [Adjusted OR (95 % CI): 3.19 (1.26–8.07), p-value = 0.015] more likely to take at least two doses as compared to those who did not know about this therapy and those seen by unskilled attendants, respectively.
This study shows that knowledge among women that SP is a medication used for malaria prevention during pregnancy increases the uptake of two or more doses of this therapy among pregnant women. This highlights the importance of behaviour change communication focused on IPTp uptake that can be complemented by having skilled personnel attending to pregnant women at the antenatal clinic.
Malaria is hyper-endemic in over 90 % of Uganda’s regions  and, therefore, still remains a disease of public health importance. The greatest burden of this disease is born by populations who have either not yet acquired full immunity to malaria, like children under 5 years, or those whose immunity has been suppressed, for example by physiological conditions like pregnancy among women [1, 2].
The National Malaria Control Programme recognizes the significance of increasing the coverage of the most important malaria control interventions and use especially in these two vulnerable populations. In the past decade, with increasing funding, there has been a scale-up of interventions especially on LLIN coverage, case management, and intermittent preventive therapy in pregnant women (IPTp) using sulfadoxine/pyrimethamine (SP). Such efforts have included the shift to universal LLIN coverage [1, 3], with a mass campaign in 2013, increasing availability of rapid diagnostic tools (RDTs) and artemisinin-based combination therapy (ACT) at health facilities for case management and IPTp using SP among pregnant mothers at the ante-natal clinics(ANC) . The national guidelines recommend at least four ANC visits for all pregnant mothers in line with the WHO guidelines [4, 5], where they receive an LLIN on their first visit, and also take SP at each of the visits .
So far, there has been success in LLIN coverage and use, with 90 % of households owning at least an LLIN and 75 % of pregnant women sleeping under one the night before the survey. There has also been considerable improvement regarding case management where mothers of 82 % of children with fever, sought treatment or advice and 87 % of children with a fever were treated with an artemisinin-based combination therapy (ACT). However, this success has noticeably been slow with IPTp uptake among pregnant women, with 89 % of women receiving one or more doses of SP, and this reduces to 45 % who received two or more doses and further down to 25 %who received three or more doses . This trend is not only peculiar to Uganda, but has also been reported in other African countries [8, 9].
This is of concern in the fight against malaria among pregnant, a disease whose consequences are clearly documented to include anaemia in mothers, still birth, early neonatal death, pre-term delivery, intra-uterine growth retardation and low birth weight in infants [10–12]. The malaria prevention benefits of taking SP as IPTp to avoid such adverse events are known [13, 14] and, therefore, its scale up is of great importance. To reduce the burden of malaria in pregnancy, a combination of all these interventions should be implemented to protective population coverage levels [5, 6] and the NMCP has adopted this strategy with the aim of achieving 85 % intervention coverage in the populations at risk by 2020 .
Therefore, using the Uganda 2014 malaria indicator survey (MIS 2014), the objectives of this secondary analysis was to determine the factors associated with taking two or more doses of SP among women who had had a live pregnancy 2 years prior to the survey. This would give an understanding of individual related factors that lead to the low uptake of the IPTp in this setting thereby contributing to the design and implementation of evidence based strategies to improve the SP usage coverage.
This was a secondary data analysis using a dataset from the recently concluded 2014 Uganda Malaria Indicator Survey.
Description of the malaria indicator Survey (MIS) dataset
The survey was conducted during the months of December 2014 and January 2015 . Households were selected using a stratified two-stage cluster design from 210 enumeration areas, representing all the regions of the country with 44 in urban areas and 166 in rural areas. An EA was defined as a natural village in rural areas and a city block in urban areas. In the first stage, 20 sampling strata (derived from 10 regional domains: Central 1 and 2, East Central, Kampala, Mid-Northern, Mid-Western, Mid-Eastern, South-Western and West Nile) were created and EAs were selected independently from each stratum by a probability-proportional-to-size selection. In the selected EAs, a complete listing of households and a mapping exercise was conducted in November 2014, with the resulting list of households serving as the sampling frame for the selection of households in the second stage. The average EA size was 94 households in urban areas and 77 households in rural areas, with an overall average size of 80 households per EA. In the second stage of the selection process, 28 households were selected in each EA by equal probability systematic sampling. A total of 5802 households were selected for the 2014 MIS, of which 5494 were occupied. Of the occupied households, 5345 were successfully interviewed, yielding a response rate of 97 %. The response rate among households in rural areas was slightly higher (98 %) than the response rate in urban areas (96 %). The main reason for non-response was failure to find individuals at home despite up to four repeated visits to the household. Informed consent was obtained from all participating heads of households and women of child-bearing age in the households that participated in the survey.
For the specifics of this study, a women’s questionnaire administered to all women aged 15–45 years in a selected household was used to collect data on women’s background characteristics (age, education,); reproductive history (number of births, postnatal care etc.); IPTp using SP for malaria during recent pregnancies in the last 2 years; information on knowledge of LLIN use and malaria.
The dependent variable of interest was a woman who had taken two or more doses of SP among those that had had a pregnancy 2 years preceding the survey. Independent variables included; age, highest education attained, residence (rural and urban), use of radio and community health teams for malaria related messages, knowledge of taking SP to prevent malaria, knowledge of use of LLINs to prevent malaria, use of an LLIN, wealth, attendant skill seen at ANC (skilled attendants include: doctors, midwives/nurses and clinical officers) and number of children the woman has.
Stata version 14 (Statcorp, College Station, Texas, USA) was used for all data analysis. For this study, we used the individual recode DHS dataset of the 2014 MIS. In order to cater for sampling variations, only weighted survey data is presented in this manuscript. This is because of the non-proportional allocation of the sample in the different regional domains at the second sampling stage (28 households were selected in each EA by equal probability systematic sampling), resulting into a sample that was not self-weighting. Weighting factors were calculated based on the population of the selected regional domains and added to the MIS datasets so that any results with the regional weight factored into it would be representative at the national and regional level as well as the survey domain level. Details of how the weighting for the different regional domains was estimated are available in the 2014 MIS report . The distributions of study participant’s baseline characteristics were presented as frequencies with respective proportions. A multivariate logistic regression model with a survey function was used to assess for the factors associated with the use of at least two or more doses of SP to initially derive the crude and then the adjusted odds ratio with the respective confidence interval. In all analyses, a p-value of <0.05 was taken as statistically significant.
Overall, 1820 women, who had had a live birth in the 2 years prior to the survey were included in the final analysis (Fig. 1). As shown in Table 1, the majority of the participants were in the age category of 25–34 years (43.49 %), closely followed by those between 15 and 24 years (41.95 %) and lastly those above 35 years (14.56 %). Women with primary education (60.26 %) and those from rural setting (82.80 %), were the majority for highest education level attained and residence respectively. Overall household wealth and region of origin were more or less with a similar distribution with the exception of those that originated from Kampala that had the least number of women at 4.64 %.
The use of two or more doses of SP for IPTp
Of the 1820 women, 1771 (97.31 %) attended at least one ante-natal care visit and of these 97.71 % received SP during their antenatal visit, 1.77 % from another visit to the facility and <1 % (0.53 %) obtained theirs from another source. Overall, 822 of the 1820 (45.16 % [42.88–47.45]) women of child bearing age, who had had a live birth 2 years preceding the survey, took two or more doses of SP.
Among factors considered, only 982 (54.00 %) of women knew that SP was used as a medication to prevent malaria, with the majority, 649 (78.97 %), of these among those who had taken at least two doses of SP. Therefore, the odds of taking two or more doses of SP among women who were knowledgeable regarding SP was 10.72 times greater as compared to those who did not know [Adjusted OR (95 % CI): 10.72 (7.62–15.08), p-value = 0.001] (Table 2). The same was observed among women who had been seen by a skilled attendant at ante-natal clinic, with the odds of taking at least two doses of SP at 3.19 times greater as compared to women who had been seen by an unskilled attendant [Adjusted OR (95 % CI): 3.19 (1.26–8.07), p-value = 0.015]. Similarly women who had three or more children were 1.68 times more likely to take SP [Adjusted OR (95 % CI): 1.68 (1.04–2.70), p-value = 0.033], however, the opposite occurred among women older than 35 years, as they were 38 % less likely to take SP as compared to those between 15 and 24 years [Adjusted OR (95 % CI): 0.62 (0.38–0.99), p-value = 0.043]. The rest of the variables were not statistically significant.
The major finding that women who knew that taking SP to prevent malaria were over ten times more likely to take two or more doses of SP is not surprising considering that the majority, close to 80 %, were knowledgeable regarding the use of SP. This finding is vital especially in this context where just over half the number of the women interviewed knew that SP was a medication used to prevent malaria during pregnancy. This lack of knowledge could possibly be due to a deficiency in behavioural change communication messages that are primarily meant to be delivered at the ante-natal clinic before the medication is prescribed [15, 16]. Of note, this result is in the backdrop that nearly almost all of the women interviewed attended ante-natal clinic with the major if not overall source of SP from the same clinics, an indirect indication that SP is mostly available at these facilities.
In contrast, this study has shown that the knowledge of the use of long-lasting insecticide-treated bed nets (LLIN) among pregnant women is at 80 %, a 35 point increase from the 45 % who took two or more doses of SP, a finding that has already been reported elsewhere . This is despite the fact that both these interventions are administered in the same health facility at the ante-natal clinic in accordance with the national guidelines when on the first ANC visit, mothers are meat to receive an LLIN and also take their first dose of SP, usually at the earliest opportunity of the start of the second trimester . Therefore, one way to improve the knowledge of IPTp as a malaria prevention medication would be to add IPTp malaria prevention messages to the already successful LLINs’ messages, packaged together, especially for pregnant women attending ante-natal clinics. This is an important aspect, considering that for women to be motivated to seek SP for IPTp, it is paramount that they know this therapy is essential for use for malaria prevention, just like LLINs, in pregnancy and it is available free of charge at ante-natal clinics [15, 18].
The finding that more women who have more than three children know the use of SP, possibly due to greater exposure to the messages, and are therefore significantly more likely take at least two doses of SP and also that women who are older than 35 years are less likely to take it, is an indication that these messages could perhaps be emphasized among women with a parity of <3 or those older than 35 years, respectively. Even with this evidence, there is still the possibility that women who took SP were the ones who had experienced its benefits and, therefore, knew of its usefulness in prevention of malaria. This reverse-causality phenomenon is a recognized weakness of cross sectional studies like the MIS, because it is not easy to determine the chronology of events as both outcome and factors associated are measured at the same time.
Another well known finding from this analysis was that women who had been seen by a skilled health worker (medical doctor, clinical officer and nurse/midwife) were close to three times more likely to take at least two doses of SP. This could be because such workers understand the usefulness of appropriate delivery of IPTp malaria prevention messages, in addition to correct prescription, highlighting the importance to improve training of all personnel who attend to pregnant women, as suggested in other studies [19, 20].
The strength of these findings lies in the fact that a large and representative unbiased national sample of women was used, captured in the 2014 MIS. However, there is the weakness that some factors associated with low IPTp uptake were not considered in this analysis since it relied only on individual related variables collected during the survey, leaving out those related to the health system and service providers .
The knowledge that SP is a medication used for malaria prevention during pregnancy is a strong driver of the uptake of at least two or more doses of SP. This could be one of the plausible reasons for the low coverage of this intervention and, therefore, it is important to place emphasis on behaviour change messages directed towards the use of SP in combination with LLINs at ante-natal clinics, coupled with training attending staff on how to deliver such messages in a simple and understandable way. These findings are generalizable to the Ugandan context as the MIS sample size was large and sample from all regions of the country, however, since this analysis was dependant on MIS collected variables, further studies to explore both health system and health provider factors that impact on IPTp usage are recommended.
artemesinin-based combination therapy
Community Health Teams
intermittent preventive therapy
long lasting insecticide treated bed nets
Malaria Indicator Survey
National Malaria Control Program
Makerere University School of Biomedical Sciences Higher Degrees Research and Ethics Committee
Uganda National Council for Science and Technology
Village Health Team
World Health Organization
Ministry of Health. Uganda Malaria Reduction Strategic Plan 2014–2020. Kampala, 2014.
Rogerson SJ, Hviid L, Duffy PE, Leke RF, Taylor DW. Malaria in pregnancy: pathogenesis and immunity. Lancet Infect Dis. 2007;7:105–17.
WHO. Recommendations for achieving universal coverage with long-lasting insecticidal nets in malaria control. Geneva: World Health Organization; 2013.
WHO. Policy brief for the implementation of intermittent preventive treatment of malaria in pregnancy using sulfadoxine–pyrimethamine (IPTp-SP). Geneva: World Health Organization; 2013.
WHO and Global Malaria Programme. Global technical strategy for malaria, 2016–2030. Geneva: World Health Organization; 2015.
WHO. A strategic framework for malaria prevention and control during pregnancy in the African Region. Brazaville: HO Regional Office for Africa; 2004.
Ministry of Health. Uganda Malaria Indicator Survey 2014–15. https://dhsprogram.com/pubs/pdf/MIS21/MIS21.pdf. Accessed 22 May 2016.
Hill J, Kazembe P. Reaching the Abuja target for intermittent preventive treatment of malaria in pregnancy in African women: a review of progress and operational challenges. Trop Med Int Health. 2006;11:409–18.
van Eijk AM, Hill J, Alegana VA, Kirui V, Gething PW, ter Kuile FO, et al. Coverage of malaria protection in pregnant women in sub-Saharan Africa: a synthesis and analysis of national survey data. Lancet Infect Dis. 2011;11:190–207.
Desai M, ter Kuile FO, Nosten F, McGready R, Asamoa K, Brabin B, et al. Epidemiology and burden of malaria in pregnancy. Lancet Infect Dis. 2007;7:93–104.
Braun V, Rempis E, Schnack A, Decker S, Rubaihayo J, Tumwesigye NM. Lack of effect of intermittent preventive treatment for malaria in pregnancy and intense drug resistance in western Uganda. Malar J. 2015;14:372.
van Geertruyden JP, Thomas F, Erhart A, D’Alessandro U. The contribution of malaria in pregnancy to perinatal mortality. Am J Trop Med Hyg. 2004;7135–40.
Menéndez C, D’Alessandro U, ter Kuile FO. Reducing the burden of malaria in pregnancy by preventive strategies. Lancet Infect Dis. 2007;7:126–35.
ter Kuile FO, van Eijk AM, Filler SJ. Effect of sulfadoxine–pyrimethamine resistance on the efficacy of intermittent preventive therapy for malaria control during pregnancy: a systematic review. JAMA. 2007;297:2603–16.
Odongo CO, Bisaso RK, Byamugisha J, Obua C. Intermittent use of sulphadoxine–pyrimethamine for malaria prevention: a cross-sectional study of knowledge and practices among Ugandan women attending an urban antenatal clinic. Malar J. 2014;13:399.
Akinleye SO, Falade CO, Ajayi IO. Knowledge and utilization of intermittent preventive treatment for malaria among pregnant women attending antenatal clinics in primary health care centers in rural southwest, Nigeria: a cross-sectional study. BMC Pregnancy Childbirth. 2009;9:28.
Gikandi PW, Noor AM, Gitonga CW, Ajanga AA, Snow RW. Access and barriers to measures targeted to prevent malaria in pregnancy in rural Kenya. Trop Med Int Health. 2008;13:208–17.
Hill J, Dellicour S, Bruce J, Ouma P, Smedley J, Otieno P, et al. Effectiveness of antenatal clinics to deliver intermittent preventive treatment and insecticide treated nets for the control of malaria in pregnancy in Kenya. PLoS ONE. 2013;8:e64913.
Ouma PO, Van Eijk AM, Hamel MJ, Sikuku E, Odhiambo F, Munguti K, et al. The effect of health care worker training on the use of intermittent preventive treatment for malaria in pregnancy in rural western Kenya. Trop Med Int Health. 2007;12:953–61.
Mbonye AK, Bygbjerg I, Magnussen P. Intermittent preventive treatment of malaria in pregnancy: evaluation of a new delivery approach and the policy implications for malaria control in Uganda. Health Policy. 2007;81:228–41.
Gross K, Alba S, Schellenberg J, Kessy F, Mayumana I, Obrist B. The combined effect of determinants on coverage of intermittent preventive treatment of malaria during pregnancy in the Kilombero Valley. Tanzania. Malar J. 2011;10:140.
HW, HK, AEA and DR conceived the study idea while HW led the data analysis with input from all authors. All authors participated in the writing of the manuscript. All authors read and approved the final manuscript.
The authors wish to thank the National Malaria Control Program and stakeholders who assisted with providing documentation during the literature review. The views expressed herein are solely of the authors and do not reflect the views of the NMCP or any other stakeholder.
The authors declare that they have no competing interests.
Availability of data and material
The datasets supporting the conclusions of this article are available with permission in the Demographic and Health survey Program repository, at http://www.dhsprogram.com/data/dataset.
Ethical approvals and consent for publication
The 2014 MIS was approved by Makerere University School of Biomedical Sciences Higher Degrees Research and Ethics Committee (SBS-HDREC) and the Uganda National Council for Science and Technology (UNCST). All participants interviewed gave their informed consent to participate in the 2014 MIS and for the information from the survey to be published. The data used in this analysis was anonymous with no individual names of participants captured.
No funding was received for this data analysis project.
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Wanzira, H., Katamba, H., Okullo, A.E. et al. The challenge of using intermittent preventive therapy with sulfadoxine/pyrimethamine among pregnant women in Uganda. Malar J 15, 401 (2016). https://doi.org/10.1186/s12936-016-1462-8
- Intermittent preventive therapy in pregnancy
- Malaria in pregnancy