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PLOS One logoLink to PLOS One
. 2023 Jun 8;18(6):e0286662. doi: 10.1371/journal.pone.0286662

Major maternal related determinants of non-breastfeeding among mothers in Ethiopia: A multilevel analysis from DHS Ethiopia 2016

Amare Wondim 1,*, Masresha Asmare Techane 1, Chalachew Adugna Wubneh 1, Nega Tezera Assimamaw 1, Getaneh Mulualem Belay 1, Tadesse Tarik Tamir 1, Addis Bilal Muhye 1, Destaye Guadie Kassie 1, Bewuketu Terefe 2, Bethelihem Tigabu Tarekegn 1, Mohammed Seid Ali 1, Beletech Fentie 1, Almaz Tefera Gonete 1, Berhan Tekeba 1, Selam Fisiha Kassa 1, Bogale Kassahun Desta 1, Amare Demsie Ayele 1, Melkamu Tilahun Dessie 1, Kendalem Asmare Atalell 1, Tewodros Getaneh Alemu 1
Editor: Mohammed Feyisso Shaka3
PMCID: PMC10249800  PMID: 37289786

Abstract

Introduction

In Ethiopia, the burden of non-breastfeeding is still high despite substantial improvements in breastfeeding. However, the determinants of non-breastfeeding were poorly understood. Therefore, the aim of this study was to identify the maternal -related factors associated with non-breastfeeding.

Methods

An in-depth analysis of data from the Ethiopian Demographic and Health Survey 2016 (EDHS 2016) was used. A total weighted sample of 11,007 children was included in the analysis. Multilevel logistic regression models were fitted to identify factors associated with non-breastfeeding. A p-value < of 0.05 was used to identify factors significantly associated with non-breastfeeding.

Results

The prevalence of non-breastfeeding in Ethiopia was 5.28%. The odds of not breastfeeding were 1.5 times higher among women aged 35to 49 years (AOR = 1.5 CI: 1.034, 2.267) than among women aged 15to 24 years. The odds of not breastfeeding were higher among children whose mothers had BMIs of 18.5–24.9 (AOR = 1.6 CI: 1.097, 2.368) and 25–29.9 (AOR = 2.445 CI: 1.36, 4.394) than among women with BMIs of < 18.5. In addition, not breastfeeding was also significantly associated with ANC follow-up, where mothers who had 1–3 ANC follow-up had a 54% decreased odds (AOR = 0.651 CI: 0.46,0.921) compared to mothers who had no ANC follow-up. Demographically, mothers from Somalia region were five times (AOR = 5.485 CI: 1.654, 18.183) and mothers from SNNP region were almost four times (AOR = 3.997 CI: 1.352, 11.809) more likely to not breastfeed than mothers residing in Addis Ababa.

Conclusions

Although breastfeeding practices are gradually improving in Ethiopia, the number of children not breastfed remains high. Individual-level characteristics (women’s age, body mass index, and ANC follow-up) and community-level characteristics (geographic region) were statistically significant determinants of non-breastfeeding. Therefore, it is good for the federal minister of Health, planners, policy and decision- makers, and other concerned child health programmers to prioritize both individual and community factors.

Introduction

Breastfeeding supplies nutrients for growth and development as well as immunity to infectious illnesses. The World Health Organization (WHO) has advised that every child should be breastfed exclusively for the first six months of life, with partial breastfeeding lasting until age two [1]. Despite this widely accepted advice and the advantages to both short- and long-term health, a significant number of children are still not breastfed [2,3].

Worldwide, failure to breastfeed according to guidelines and use of breast milk substitutes result in more than 800,000 infant deaths and cognitive impairments [4]. Non-breastfeeding increases the risk of obesity, type 1 and type 2 diabetes, leukemia, and sudden infant death syndrome in children [5]. Additionally, not breastfeeding is strongly linked to increased rates of mortality from infectious diseases and respiratory system infections leading to hospital admissions [6,7]. The incidence of infectious morbidity and infections such as diarrhea and pneumonia is high [4]. Furthermore, not breastfeeding presents serious difficulties for infants. For instance, infants who were not breastfed had a 3.6 and 2.4-fold higher risk of developing necrotizing enterocolitis and lower respiratory tract infections, respectively, compared to infants who were exclusively breastfed [8].

Globally, it is estimated that not breastfeeding causes yearly economic losses of around $302 billion due to the financial burden and cognitive deficits it causes. More specifically, there is a cost of $14.4 billion in premature mortality and $733.7 million in direct care expenses when infants are not optimally breastfed (6 months exclusively, one year, or longer) [5]. In addition, there are significant and high expenses to the health care system related to the morbidity and environmental costs of breast milk substitutes [2].

The problem of not breastfeeding impacts mothers as well as infants. Breast cancer, ovarian cancer, retained pregnancy weight gain, type 2 diabetes, myocardial infarction, and metabolic syndrome are all more common in non-breastfeeding mothers [5]. In addition, not breastfeeding increases the risk of postpartum hemorrhage and depression, as well as premature mortality from various diseases later in life [4].

The literature reports a number of causes for non-breastfeeding in different communities in Ethiopia. Cultural, social, and economic reasons have been mentioned as obstacles to not breastfeeding [4,9]. Access to services, cultural barriers (breastfeeding is not the norm in many communities, and it is embarrassing to do so in public), a lack of knowledge about breastfeeding, inaccurate information, the workplace environment, a lack of family and social support, breastfeeding problems, returning to work and access to supportive childcare, policies and practices of some health services and health care providers, and the promotion and marketing of infant formula were some of the specific factor that were identified [1013].

Although UNICEF and WHO have jointly identified breastfeeding as a crucial step towards reaching SDGs 2, 3, 4, and 5, breastfeeding practices and their effects on infant survival and health are an undeniable cause for concern worldwide [1416], a significant percentage of newborns continue not to be breastfed. Despite this fact, there is no comprehensive understanding of the current factors underlying non-breastfeeding among a nationally representative sample in Ethiopia. Therefore, this study aimed to determine maternal related factors that predict non-breastfeeding among mothers using the Ethiopian Demographic and Health Survey 2016 (EDHS).

Methods

Study design and setting

A cross-sectional, population-based research, the factors that contribute to non-breastfeeding have been studied. It is based on data from the 2016 Ethiopian Demographic Health Survey (EDHS) surveys. The Demographic Health Survey (DHS), a multi-round study, assesses population health with a focus on maternal and child health as well as health indicators of worldwide importance. Ethiopia is the second most populous country in Africa, with an estimated 115 million people and a total land size of 1.04 million square kilometers. The nation has a variety of geographical characteristics, with heights varying from 125 meters below sea level in the Afar Depression to 4550 meters above sea level in Ras Dejen in the Semien Mountains in the Amhara region. Ethiopia is divided into two city administrations (Addis Ababa and Dire Dawa) and twelve administrative regions (Tigray, Afar, Amhara, Oromia, SNNP, Benshangulgumuz, Somali, Gambela, Harari, Sidama, South West Ethiopia and Southern Ethiopia) (first level). The country is also divided into zones (second level), districts (third level) and kebeles (fourth level). Ethiopia has a three-tier health care system consisting of (1) primary care: consisting of health posts, health centers, and primary hospitals; (2) secondary care: consisting of general hospitals; and (3) tertiary care: consisting of specialized hospitals [17]. Due to inadequate transportation infrastructure, more than half of the population in Ethiopia lives more than 10 kilometers from the closest health care facility [18].

Data sources, sampling technique, and study population

Data were compiled from various sources; for this study, data were taken from the 2016 EDHS for the primary outcome (i.e. non-breastfeeding status), the individual and the community factor. The EDHS surveys collect data every five years that are nationally representative. The fourth in a series of demographic and health surveys in Ethiopia is the EDHS 2016. A two-stage stratified cluster sampling technique was used to collect the data from the EDHS study. In the first part, 645 survey areas (clusters) were selected and stratified into urban and rural areas. The second step entailed selecting the homes within each of the finalized clusters. The weighted sample included 11,007 eligible children under the age of five.

Study variables

We used non-breastfeeding as the outcome variable (Children who never had breast feed) using EDHS 2016, from the duration of the breastfeeding section.

Factors at the individual and community levels were included as covariates. Individual factors included sociodemographic characteristics such as the highest educational level of the mother (defined as "no education," "primary," or "secondary or above") and the highest educational level of the partner ("no education," "primary," or "secondary or above"). Marital status ("never married," "currently married," "formerly married"), mother’s age ("15–24 years," "25–34 years," "35–49 years"), and the mother’s media exposure ("no" or "yes")

EDHS 2016, reported a wealth index combined by five classification: “poorest, poorer, middle, richer and richest”. In this study, wealth indexes were classified into three clusters, grouping the poorest and poorer into “poor”, richer and the richest into “rich”. Hence we had poor, middle and rich classification.

Maternal- related factor included the number of antenatal clinic visits (categorized as “0 visits”, “1–3 visits”, “4 or more visits”), place of delivery (“home” or “health facility”), and mode of delivery (“cesarean section” or “vaginal”) and maternal body mass index (BMI) measured as weight (kg)/height (m2). Community-level factors included place of residence (“rural” or “urban”) and geographic region.

Geographical regions were divided into nine regional states of Ethiopia; namely Afar, Amhara, Benishangul-Gumuz, Gambella, Harari, Oromia, Somali, Southern Nations Nationalities, and Peoples’ Region (SNNP), and Tigray, as well as two city administrations, Addis Ababa and Dire Dawa. Community-level indicators of women’s literacy, media exposure, and poverty level were developed by combining individual-level characteristics in order to conceptualize their impact on non- breast feeding. In order to generate the aggregate community-level predictor variables, the individual-level values from each cluster were combined, and the binary classification of the aggregate variables (high or low) was based on the distribution of the proportion values computed for each cluster. For community poverty status: by aggregating of individual maternal poverty using proportion and swilk proportion to check the normality assumption if normality assumption fail then we use median as a measure of summary statistics and for community woman literacy: aggregating of individual maternal educational level (no education, primary and secondary and above) into two cluster (poor, good) and community media exposure using individual maternal exposure status (no, yes) and considering the proportion of mother having no media exposure and swilk proportion to check the normality assumption if normality assumption fail then we use median as a measure of summary statistics. For non-normally distributed aggregate predictor variables at the community level, the median served as the cutoff number for classification. The histogram was used to ascertain whether the distribution was normal or not.

Statistical analysis

Descriptive statistics were used to show how the background characteristics were distributed. Because the survey findings were nested and varied by cluster (census tracts). Sampling weights were used to account for the uneven selection probability between clusters and reestablish the survey’s representativeness. In this research, a mixed-effects logistic regression model was used to determine the actual relationship between not breastfeeding and different characteristics. Multilevel logistic regression models were developed to address individual and community variables related to not breastfeeding. The first of the four models was Model I (null model), which was fitted without explanatory factors to check for random variability in the intercept and to determine the intra- class correlation coefficient (ICC). Model II examined the impact of individual characteristics on outcomes. Model III focused on community-level variables. While Model IV concurrently examined both individual and community-level characteristics. In order to take statistical significance for measures of association into consideration, adjusted odds ratios with 95% confidence intervals were used (fixed effects). For measures of variation (random effects), ICC, median odds ratio (MOR), and proportional change in variance (PCV) statistics were calculated. Model comparison was based on the deviance information criteria (DIC). The model with the lowest information criterion was considered the best-fitting model.

Ethical considerations

We requested the data from the MEASURE DHS program, and permission to download was granted. The downloaded data were used for this study only. The data set was not shared with other researchers without the consent of EDHS. All data from EDHS were kept confidential without identifying any household or individual respondent. ​In addition, as we used secondary data (national survey), informed consent was not taken.

Results

Individual-level characteristics of study participants

The prevalence of non-breastfeeding in Ethiopia was 5.28% (n = 581) from the overall weighted population of 11,007 children. About 52.99% of the mothers, or about half, were in the 25–34 age group. In terms of educational attainment, 66.07 and 48.52% of mothers and their husbands/partners, respectively, did not have any formal education. The majority of mothers (94.9%) were married. With a low rate of caesarean births (1.93%), 27.39% of births took place in health care facility. About 74.04% of mothers had a body mass index between 18.5 and 24.9 kg/m2, and 31.88% of mothers stated they had visited an antenatal facility more than four times while they were pregnant. For 66.92% of respondents, there was no media coverage (see Table 1).

Table 1. Background characteristics of individualS among mothers in EDHS 2016 (weighted n = 11,007).

Variables Categories Weighted Frequency percent

Age of the mother
15–24 2437.61 22.14
25–34 5833.11 52.99
35–49 2737.06 24.86
marital status Never married 56.93 0.52
Currently married 10,450.74 94.9
Formerly married 500.12 4.54
Mother education level No education 7272.77 66.07
Primary 2948.07 26.78
Secondary and above 786.95 7.15
husband/partner’s
educational level
No education 5,070.34 48.52
Primary 4,113.78 39.36
Secondary and above 1,266.62 12.12

Wealth index
Poor 5152.74 46.81
Middle 2276.36 20.68
Rich 3578.67 32.51
Media No 7366.26 66.92
Yes 3641.52 33.08

BMI
<18.5 2102.54 19.62
18.5–24.9 7932.79 74.04
25–29.9 542.14 5.06
> 30 136.67 1.28

Place of delivery
Home 7992.5 72.61
Health facility 3015.28 27.39
delivery by cesarean section Non cesarean 10794.97 98.07
Cesarean section 212.83 1.93

Number of ANC visits
No visit 2818.27 37.21
1–3 visit 2341.95 30.92
4 and above visit 2414.64 31.88

Community-level characteristics of study participants

About 89.01% of the children resided in rural areas, with a particularly high number (44.04%) in the Oromia regions. Regarding community poverty status, 63.94% had a lower level, whereas 56.55% had more media exposure (Table 2).

Table 2. Background characteristics of communities among mothers in EDHS 2016 (weighted n = 11007).

Variables Categories Weighted frequency Percent

Region
Tigray 710.67 6.46
Afar 114.03 1.04
Amhara 2070.19 18.81
Oromia 4848.14 44.04
Somali 506.94 4.61
Benishangul 121.64 1.11
SNNP 2292.67 20.83
Gambela 26.85 0.24
Harari 25.79 0.23
Addis Ababa 243.94 2.22
Dire Dawa 46.92 0.43
Residence Urban 1210.19 10.99
Rural 9797.58 89.01
community level poverty Lower 7038.67 63.94
higher 3969.11 36.06
community level woman literacy Lower 2085.79 18.95
higher 8921.99 81.05
community level media exposure Lower media exposure 4783.08 43.45
Higher exposure 6224.71 56.55

Measures of variation (random-effects) and model fit statistics.

Based on the null model, there was statistically significant variation in non-breastfeeding across communities.

About 23.56% of the variation in the odds of non-breastfeeding is attributed to community-level factors (ICC = 23.56%). After adjusting the model for individual-level factors (Model II), about 4.06% of the variation in the odds of non-breastfeeding was attributed to individual-level factors (PCV = 4.06%), while 24.3% of the variance in non-breastfeeding was explained by community-level factors (ICC = 24.3%). Based on Model III, which was adjusted for community-level factors, it was found that 22.13% of the variability among clusters was explained by community-level factors (PCV = 22.13%), and 19.37% was explained by community-level factors (ICC = 19.37%). Model IV is the best-fit model which incorporates both individual and community-level factors simultaneously. Based on this final model, about 21.74 percent of the variance in non-breastfeeding odds among communities was explained by community-level factors (ICC = 21.74%), while 9.96% of the variance in the odds of non-breastfeeding across communities (PCV = 9.96%) was explained by both individual and community-level factors. Incorporating both individual- and community-level factors, the unexplained heterogeneity in non-breastfeeding between communities was reduced from MOR of 2.6 to MOR of 2.48. (Table 3). A small number of DIC is in Model IV, indicating that the explanatory value of the model increases for Model IV. In other words, Model IV explained the determinants better than Models II and III; this makes the final model the best-fitted model than others (Table 3).

Table 3. Measures of variation (random intercept models) and model fit statistics in non-breast feeding in EDHS 2016.

Parameter Null model Model II Model III Model IV
ICC (%) 23.56 24.3 19.37 21.74
MOR 2.6(2.27,3.05) 2.65(2.18,3.39) 2.33(2.04,2.72) 2.48(2.05,3.16)
PCV (%) Reference 4.06% 22.13% 9.96%
Model comparison
Log likelihood -2163.4248 -1089.8738 -2143.0982 -1080.4471
Deviance 4326.8496 2179.7476 4286.1964 2160.8942

Multilevel logistic regression analysis

Maternal age, maternal education, place and type of delivery, body mass index, the media, ANC follow-up, wealth, and the community factors of residence and region were all significant in the bivariable logistic regression with p-values 0.25. Only maternal age, BMI, ANC visit, and region were associated with non-breastfeeding in the multivariable logistic regression at a p-value of 0.05. Non-breastfeeding is 1.5 times more likely among 35–49 years old women (AOR = 1.5, CI: 1.034, 2.267) than among 15–24 years- old women. The odd of non-breastfeeding in children whose mothers had a BMI 18.5–24.9(AOR = 1.6 CI: 1.097, 2.368) and 25–29.9(AOR = 2.445 CI: 1.36, 4.394) higher than those of women having BMI <18.5.

Non-breastfeeding was also significantly associated with ANC follow-up, where mothers with 1–3 ANC follow-up had a 35% decreased odds of (AOR = 0.651 CI: 0.46,0.921) compared to mothers without ANC follow- up. Demographically, the odds of non-breastfeeding five times (AOR = 5.485 CI: 1.654, 18.183) in Somali and nearly four times (AOR = 3.997 CI: 1.352, 11.809) in SNNP higher than compared to mothers residing in Addis Abeba (Table 4).

Table 4. Predictor of non- breastfeeding among mothers children in Ethiopia, 2016.

Variables Categories breast feeding status Odds ratio
NBFa BFb COR Model II
AOR (95% CI)
Model III
AOR (95% CI)
Model IV
AOR (95% CI)

Age of the mother
15–24 134 2435 1 1 1
25–34 279 5230 0.86(0.685, 1.083) 0.864(0.607, 1.232) 0.86(0.604, 1.229)
35–49 162 2382 1.16(0.9, 1.506) 1.497(1.013, 2.212) 1.53(1.034,2.267) *
Mother education level No education 382 6443 1 1 1
Primary 121 2553 0.73(0.593, 0.923) 0.881(0.627, 1.236) 0.68(0.618, 1.22)
Secondary and above 72 1051 1.13(0.804, 1.593) 1.114(0.653, 1.899) 1.08(0.623, 1.874)

Wealth index
Poor 302 5468 1 1 1
Middle 82 1379 1.32(1.038, 1.702) 1.152(0.79, 1.679) 1.19(0.814, 1.742)
Rich 191 3200 1.41(1.118,1.799) 1.351(0.938,1.944) 1.36(0.937,1.978)
Media No 386 6765 1 1 1
Yes 189 3282 1.28(1.055,1.567) 1.342(0.975,1.847) 1.37(0.999,1.899)

BMI
<18.5 134 2333 1 1 1
18.5–24.9 364 6434 1.23(.967,1.576) 1.614(1.100,2.366) 1.61(1.097,2.368) *
25–29.9 45 692 1.54(1.011,2.352) 2.32(1.421,4.512) 2.44(1.36,4.394) *
> 30 11 214 0.97(0.434,2.203) 1.344(0.468,3.86) 1.238(0.428,3.585)
Place of delivery
Home 409 6736 1 1 1
Health facility 166 3311 0.79(0.637,0.996)
0.801(0.565,1.136) 0.795(0.556,1.136)

delivery by caesarean section
Non caesarean 558 9759 1 1 1
Caesarean section 17 288 1.69(1.037, 2.785) 1.782(0.922, 3.443) 1.904(0.977,3.711)

ANC visit
No visit 122 2359 1 1 1
1–3 visit 66 2026 0.60(0.438, 0.846) 0.645(0.456, 0.911) 0.65(0.46, 0.921) *
4 and above visit 94 2507 0.80(0.59,1.099) 0.832(0.587,1.179) 0.85(0.6,1.217)
community level poverty Lower 283 5056 1 1 1
higher 292 4991 0.888(0.744, 1.059) 1.01(0.706,1.473) 1.34(0.797,2.273)
community level woman literacy Lower 139 2482 1 1 1
higher 436 7565 0.83(.679, 1.02) 1.091(0.736,1.617) 1.05(0.607,1.833)
community level media exposure Lower media exposure 290 5022 1 1
Higher exposure 285 5025 1.23(1.044,1.471) 1.13(0.806,1.594) 1.30(0.805,2.101)

Region
Tigray 32 993 0.54(0.238,1.236) 0.86(0.361,2.076) 2.52(0.784,8.158)
Afar 46 1014 0.68(0.205,2.294) 1.10(0.318,3.807) 3.48(0.658,18.499)
Amhara 26 950 0.46(0.22,0.967) 0.74(0.333,1.649) 1.69(0.562,5.108)
Oromia 79 1501 0.90(0.452,1.815) 1.51(0.698,3.292) 2.68(0.913,7.704)
Somali 112 1390 1.43(0.66,3.12) 2.28(0.993,5.239) 5.48(1.654,18.183) *
Benishangul 54 825 1.08(0.377,3.1) 1.83(0.608,5.554) 3.48(0.693,17.49)
SNNPR 108 1167 1.49(0.742,3.02) 2.52(1.153,5.508) 3.99(1.352,11.809) *
Gambela 47 666 1.26(0.234,6.881) 1.77(0.323,9.733) 5.05(0.573,44.588)
Harari 19 585 0.50(0.046,5.575) 0.72(0.066,7.998) 1.14(0.028,46.859)
Addis Abeba 27 434 1 1 1
Dire Dawa 25 522 0.91(0.201,4.195) 1.20(0.264,5.478) 2.27(0.266,19.409)

Residence
Urban 117 1852 1 1 1
Rural 458 8195 0.68(0.476, 0.995) 0.55(0.372, 0.839) 0.65(0.363,1.169)

Notes: * p < 0.05; 1 = Reference category.

a NBF: Non-breastfeeding.

b BF: Breastfeeding.

Discussion

This research aimed to assess the prevalence and determinants (individual and community-level) of non-breastfeeding in Ethiopia using nationally representative EDHS 2016 data.

According to WHO guidelines, every infant should get exclusive breast milk for the first six months of life, with partial breastfeeding continuing until age two [1]. In this demographic survey, 5.41% of children were non-breastfed. This is lower than studies conducted in Saudi Arabia, 19.2% [19], 18% in EDO state, Nigeria [20] and 19% in India [6]. Different socioeconomic and cultural norms may be the cause of the discrepancies. This finding is contrary to the principles and recommendations of the World Alliance for Breastfeeding Action, as well as the World Health Organization’s belief that more than 820,000 children could be saved annually if all infants and young children aged 0 to 23 months received the recommended amount of breast milk [1,21].

According to this research, there is an important association between the mother’s age and the children’s non-breastfed status. Compared to women aged 15–24, women aged 35–49 had greater odds of not breastfeeding. Study results from rural populations in Saudi Arabia, Nigeria, and Italy support this finding [19,20,22]. This could be because mothers feel their own amounts of breast milk are insufficient as their children get bigger. Mothers who are 35 years old or older might therefore require extra care. There is a substantial metabolic burden on breastfeeding mothers because it takes 500 kcal per day to make milk for a baby who is exclusively breastfed [5]. The current research also found an association between body mass index and not breastfeeding, with the likelihood of not breastfeeding being greater in children whose mothers had BMIs of 18.5–24.9 and 25–29.9 kg/m2 compared to women with BMIs under 18.5 kg/m2. The finding is in line with a quantitative review of the literature in Japan [23] and other studies [24,25]. This could occur as a result of overweight mothers having huge, heavy breasts that could biologically hinder a baby’s ability to suck or overweight women having a physiological pattern that negatively affects "the maternal-fetal connection [2628]. The reason is also perhaps associated with socio-cultural factors.

According to studies, breastfeeding instruction and counselling from parents during pregnancy significantly affects mothers’ rates of early breastfeeding initiation and exclusive breastfeeding continuation [29,30]. Similar to the previous research, the current study also found a link between ANC visits and not breastfeeding, with mothers who had one to three ANC follow-up visits experiencing a 54% decrease in the likelihood of not breastfeeding as compared to mothers who did not receive ANC follow-up. This may be due to the fact that mothers will learn about the therapeutic advantages of breastfeeding during their ANC follow-up appointments, which is the main component of the service package. Additionally, it’s possible that they’ll learn about breastfeeding challenges and the consequences of infant feeding on health.

The prevalence of mothers who don’t breastfeed differs significantly across the regional states of Ethiopia. Mothers from SNNP and Somali were much less likely to choose not to breastfeed their children compared to mothers from Addis Ababa. This might be the result of the mother living in SNNP and Somalia were unaware of the potential benefit. Additionally, these areas are border regions and might make it difficult for them to use and access healthcare services. Additionally, people in these regions might be less educated and live more remote from healthcare facilities [31].

Strengths and limitations of the study

Multilevel analysis was used to manage the hierarchical nature of the DHS data, producing accurate estimation standard errors based on weighted, nationally representative data with a large sample size. The research may also provide policymakers and programme planners with helpful information for developing efficient interventions at both the national and regional levels. This research does have some limitations due to the DHS survey’s reliance on respondents’ reports, which may be biased by recall. Drawing the cause and effect relationship is challenging due to the cross-sectional nature of the research. Because the data was gathered in 2016, it’s possible that it doesn’t accurately reflect the situation currently.

Conclusion

Despite a slight improvement in breastfeeding practices, the number of not breasted children in Ethiopia is still significant. Age, BMI, and ANC follow-up were variables at the individual and geographic area from community levels were statistically significant predictors of not breastfeeding. Therefore, it would be advantageous if the Federal Ministry of Health, planners, policy-makers, and other child health programmers made addressing both the variables at the individual and community levels a priority.

Acknowledgments

The authors would like to thank the Measure DHS program for their permission to download and use 2016 Ethiopian Demographic and Health Survey Datasets.

Abbreviations

AOR

Adjusted odds ratio

ANC

Antenatal care

BMI

Body mass index

CI

Confidence Interval

COR

Crude odds ratio

DHS

Demographic health survey

DIC

Deviance Information Criteria

EDHS

Ethiopian demographic and health survey

ICC

Intra class Correlation Coefficient

MOR

Median odds ratio

PCV

proportional change in variance

SNNP

Southern nation’s nationalities and peoples

UNICEF

United Nations international children’s fund

WHO

World Health Organization

Data Availability

https://www.dhsprogram.com/data/dataset_admin.

Funding Statement

The author(s) received no specific funding for this work.

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Associated Data

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

Data Availability Statement

https://www.dhsprogram.com/data/dataset_admin.


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