Kwadabeka Community Health Centre, South Africa
* Corresponding author
South African College of Applied Psychology, South Africa
Green University of Bangladesh, Bangladesh
United Hospital, Bangladesh
Kwadabeka Community Health Centre, South Africa
Bikrompur Bhuiyan Medical College, Bangladesh

Article Main Content

Given its link to maternal and perinatal morbidity and mortality, birth before arrival (BBA) is a public health concern. The purpose of this study was to evaluate the prevalence, trends, outcomes, and contributing factors of BBA among women who gave birth in a South African midwife obstetric unit between 2018 and 2022. A cross-sectional descriptive analysis was carried out among women who gave birth and saw a BBA right away using data from the labor ward birth registration. Variables with a p value of less than 0.05 were deemed significant, and descriptive statistics like frequency, cross table analysis, and binary logistic regression analysis were calculated. 4.8% of people had BBA (95% CI: 4.4, 4.9). Between 2018 and 2022, BBA decreased from 5.2% to 3.8% (p= 0.021). Women with nil parity (OR= 0.054, 95% CI; 0.021:0.140, p < 0.001), parity 1–2 (OR= 0.164, 95% CI; 0.076:0.350, p < 0.001), and parity 3–4 (OR= 0.27, 95% CI; 0.12:0.60, p = 0.001) were the variables linked to BBA in logistic regression. Comparing women who received ANC at KCHC to those who received ANC at another medical facility, the former had a lower OR of 0.63 (95%CI; 0.44:0.91, p = 0.014). Conversely, compared to women who had nine or more antenatal care (ANC) visits, those who had none (ANC visit 0 or never scheduled for ANC) had a higher OR of 3.41 (95%CI; 1.205:9.66, p= 0.021). Preterm birth (PTB) had an OR of 1.53 (95% CI: 1.05:2.22, p= 0.024), while Low birth weight (LBW) had an OR of 2.41 (95% CI: 1.53:3.79, p < 0.001). According to the survey, the prevalence of BBA is trending downward. These results demonstrated how crucial early ANC scheduling and sufficient prenatal care are to enhancing pregnancy outcomes.

Introduction

Birth before arrival (BBA) is the term used to describe a child delivered at home or while traveling to a medical facility and receiving maternal and neonatal care [1]. There is no midwife or medical officer present for these births outside of medical institutions, which may occur in ambulances, at home while preparing, or during the journey to the hospital [2], [3]. Accessibility to perinatal care is gauged by the BBA rate; a rate higher than 1.5% indicates problems with the delivery of healthcare. It is advised to do additional research and implement suitable measures if such a rate is present [4]. With 96% of women reporting one or more ANC visits and 94% having skilled birth attendants during delivery, South Africa (SA) has higher overall rates of maternal health service utilization [5]. Unfavorable maternal and perinatal morbidities and mortality rates are linked to BBAs [6], [7]. Less than 1% of people in developed nations have BBA [8], [9] whereas in low-income nations, such as Ethiopia and India, the prevalence rate rises rapidly to 50% [1], [10]. According to a recent Ethiopian study by Amanuel et al. (2024), the prevalence of BBA is 15.2% [11]. The national home delivery or delivery by traditional healers (not qualified birth attendant) rate in SA is 8%, according to SA Demographic and Health Survey Report (SADHS) 2018 [5]. Premature and low birth weight deliveries are among the more common issues are linked to BBAs earlier study found from KZN [1].

According to a 2009 report, the incidence of BBA in SA was 5.7% in KwaZulu-Natal (KZN) and 5% in Gauteng Provinces [1]. According to 2017 research, the district-level BBA rate in SA’s Nkangala District was 4.6% [12]. According to a 2022 study report from a Durban hospital, the incidence of BBAs is 2.2% [13]. As a result, prevalence rates differ both domestically and internationally. The prevalence rates in SA, however, are not widely known. Prematurity and birth asphyxia are the main obstetric factors causing perinatal deaths in SA [14], [15]. Higher infant mortality rates and poor perinatal outcomes are caused by BBAs [16]. The other reports, compared to hospital-born babies, BBAs may have an 11-fold higher mortality rate and a two-fold higher morbidity rate [17]. According to a KZN study, having a BBA increases the risk of preterm and low birth weight deliveries by 3.9 times [12]. BBAs are also found with high-risk and vulnerable population that is prone to higher rates of maternal and perinatal morbidity and mortality [1], [18]–[20]. Hypothermia, asphyxia, respiratory distress, low birth weight, neonatal sepsis, and an increased risk of mother-to-child HIV transmission are among the common outcomes of BBAs on neonates, with hypothermia being the most common [6], [21]–[24].

Postpartum hemorrhage from uterine atony, retained placenta and products of conception, perineal rips and cuts, and puerperal infection are among the maternal problems that might arise from a BBA [22]. An estimated 4 million newborn fatalities and a comparable number of stillbirths occur each year worldwide as a result of BBAs [25]. South-central Asian nations account for the greatest number of newborn mortality, while sub-Saharan Africa (SSA) often has the highest rates of BBA [25], [26]. Around 36% of newborn deaths take place within the first 24 hours of life, and the majority of neonatal deaths (73%) happen during this time. BBA infants with advanced outcomes also die during this time. Effective health interventions after birth and the first week of life could avert up to two-thirds of newborn deaths [26], [27]. Nonetheless, 5.2 million deliveries worldwide, including BBA, take place without a person present [28].

According to earlier research, the main risk factors for BBA are the interaction of social, obstetric, and demographic factors [29]–[31]. Nonetheless, these elements are crucial in determining how much it contributes to health disparities [32]. The characteristics of regionally marginalized communities are frequently reflected in the social risk factors [33]. Early risk categorization is therefore necessary since it may give high-risk patients more time to implement preventative interventions such as patient education, customized prenatal care planning, and social support solutions [34].

Some African studies have shown that BBAs are linked to sociodemographic factors like low maternal age, low educational attainment, living in a rural area, being married, and having a low monthly income; obstetric factors like poor ANC attendance, adolescent and unwanted pregnancies, the mode of previous delivery, birth plans, and recognizing the onset of labour; and access factors like limited access to health care and transportation [2,21,3538]. Important risk factors for birth asphyxia, and mortality include low birthweight newborns, poor early care of the newborn, diminished antenatal trend, and lack of transportation from home [39]. Furthermore, additional research found that factors like parity, ethnicity, multidimensional deprivation, employment status, booking timing, and distance from home to the closest maternity care unit are predictors of BBAs that can be detected at booking [40].

We conducted a study to evaluate the prevalence, consequences, and risk factors for BBAs who presented at a Community Health Centre (CHC) in Durban, South Africa, using our knowledge of the prevalence, repercussions, and risk factors of BBA from various locations and times. The study’s main goal was to compare the perinatal morbidity and mortality rates of babies born in a MOU and BBAs. The study also aimed to determine the traits of mothers and their infants and demonstrate a trend in the incidence of BBAs. By determining risk variables, assessing results, and formulating suggestions to enhance maternal and neonatal care in this patient population, the study aimed to advance our knowledge of BBAs.

Materials and Method

Study Design, Sample Selection and Data Collection

At a midwife obstetric unit (MOU) of Kwadabeka Community Health Centre (KCHC) located in Clearmont and Kwadabeka townships of KZN, South Africa, a retrospective cohort study was conducted. The women who gave birth at (KCHC) from January 1, 2018 to December 31, 2022 were the study subjects. The “birth register,” also referred to as the “delivery register,” provided the information for the study, which was conducted from July to March of 2023. The birth register was used to gather demographic, obstetric, and medical information about all mothers and newborns. The specifics of every delivery at KCHC and BBAs are formally documented in the registry. The register contained minimum factors related to pregnant women’s demographic and obstetric data such as maternal postpartum hemorrhage (PPH) and low birth weight (LBW) deliveries, and neonates’ preterm, stillbirth and early neonatal mortality (death of a live birth neonate within 7 days), (ENND). This study included the following exposure variables: age, parity, gestational age (GA) at delivery, antenatal care (ANC) location (facility), number of ANC visits, ANC booking before 20 weeks of GA, the presence of HIV and syphilis infections.

Setting and Population

For more than 150,000 primarily Black residents of the two townships, KCHC acts as a PHC facility. It is located inside the municipal limits of eThekwini (Durban). In the KCHC catchment region, there are seven more fixed PHC clinics that are operated by KCHC and provide PHC service packages that include prenatal and postnatal care but do not include delivery services. Based on the principles of the District Health System, which has been in existence since 1994 as SA became more democratic, pregnant women from those clinics use KCHC for delivery services [33]. Three midwives are assigned to perform births and care for mothers and newborns during the day (7 am to 4 pm), and two midwives are assigned to do the same during the evening (4 pm to 7 am), in addition to other support staff. The national protocol and guidelines, which have been in effect since 2002 and have been revised in 2016 and 2023, are followed when providing prenatal care and delivery services. This study does not include high-risk pregnancy issues that are identified during prenatal care because they are sent to hospitals.

Care During Delivery for Mothers and Neonates

When a pregnant woman arrives at KCHC experiencing labor pain, an examination and assessment are conducted to diagnose or classify any obstetric and fetal dangers according to National Guidelines on maternity care in SA [41]. Women are allowed to give birth at KCHC if there is no obvious risk or if there are no imminent delivery issues; those who do have issues are transported to a hospital by emergency medical rescue ambulance. In cases where the MOU is unable to handle mother and infant issues or risk factors (such as high maternal blood pressure, eclampsia, fetal distress, etc.) during labor, hospitalization is undertaken. For women who give birth at the MOU without any problems, mothers and babies are observed for eight hours after delivery. Demographic and obstetric information, as well as any observations and test findings obtained before and after delivery, are all included in the birth register. KCHC monitors uncomplicated women and infants for eight hours before sending them home after receiving the proper counselling on topics such as family planning, nursing, vaccines, postpartum and neonatal care, etc. At KCHC, only vaginal deliveries are performed; no tools like vacuums or forceps are used. A mother or newborn is also referred to the hospital if they experience any difficulties during the postpartum phase. For the mother’s postnatal treatment, KCHC is notified if a referred infant passes away in the hospital within seven days. This MOU does not use labor augmentation. The national guideline for management of HIV among mothers and neonates at delivery was followed [41].

Ethical Consideration

The ethical approval was granted by the UMgungundlovu Health Ethics Review Board (Reference number. UHERB 015/2020). The management of KCHC also granted permission. Informed consent wass not necessary because the study used register review.

Data Analysis

SPSS 27.0.1 (SPSS Inc., Chicago, IL, USA) was used to analyze data that was imported from the Microsoft Excel application. The examination of the patient’s baseline demographic and pregnancy outcome data was summarized using descriptive summary measures, which are expressed as means with standard deviations (SD) for continuous variables and percentages for categorical variables. The main dependent variables were separated into several groups in order to analyse. The pregnant women’s ages were separated into four groups: under 20 years old (teenage), 20–29, 30–39, and 40 years or above. Their parity was classified into 0 (Nil), 1–2, 3–4, and 5 or above. ANC initiation timing (GA) was defined as booking before 20 weeks (Yes/No), ANC booking status was either Yes or No, and the ANC site was classified as KDC and other medical facilities. Six categories were used to group ANC visits: 0 (nil), 1–2, 3–4, 5–6, 7–9, and 9 or more visits. The syphilis (using the RPR test results) and HIV (using ELISA test results) status were shown as either negative or positive. The outcome variable for the study was BBA (having binary values of Yes = 1 and no = 0).

The consequences of BBAs on maternal and neonates were measured using yes or no for maternal PPH, preterm birth, LBW deliveries, live births, stillbirths and ENND. The corelation between BBA and pregnancy outcomes or consequences were measured with Pearson’s corelation test and p values. Preterm birth (PTB) and LBW were measured with gestational age (GA < 37 weeks) and neonate’s birth weight (<2.5 kg), respectively.

The dependent (exposure) and outcome variables were associated using Pearson Chi-square (X2) and p values (p < 0.05) in bivariate analysis, such as cross table analysis. Binary logistic regression with significant exposure variables was used to find significant prospective predictors for outcome variables. Adjusted odds ratios (OR), matching two-sided 95% confidence interval CIs, and related p-values were used to express the outcomes of regression models. The P-value was recorded as less than 0.001 (<0.001) if it was 0.000 or less. P values < 0.05 was considered significant.

Results

Over the course of five years, the prevalence of BBA was 4.8% (95% CI: 4.6–4.9). BBA at this PHC facility did, however, according to Table I showed a downward tendency, falling from a higher rate of 6.4% in 2019 to a lower rate of 3.8% in 2022 (p = 0.021). According to an analysis of the 2018–2022 trend, the BBA rate peaked in 2019 at 6.4%, then declined in 2020 at 3.5%, and then fluctuated in subsequent years.

2018 2019 2020 2021 2022 X2 P
BBA-Yes frequency, (n) and percent (%) 47 (5.7%) 52 (6.4%) 30 (3.5%) 35 (4.4%) 32 (3.8%) 11.568a 0.021
No-percent (%) 94.3% 93.6% 96.5% 95.6% 96.2%
Table I. Annual Prevalence of BBA Over the Study Period 2016 to 2022

There are noteworthy correlations between maternal variables and BBA, according to the cross-tabulation in Table II. In comparison to other groups, where BBA rates rose to 7.6% and 11.4% in age groups 30–39 and >40 years, respectively. Younger mothers, age groups <20 and 20–29 years, had considerably lower BBA rates (3.6% each) (p < 0.001). Mothers with parity five or more (prior births) had the highest rate (25.5%) of BBAs, compared to just 2.0% for mothers in parity 0, 4.8% for mothers in parity 1–2, and 9.1% for mothers in parity 3–4 (p < 0.001). Higher parity groups of women had considerably and significantly higher rates of BBAs (p < 0.001). Booking prenatal care was important for BBA; mothers who did not book prenatal care had a significantly higher rate of BBA (25.0%) than those who booked for ANC (3.8%) (p < 001), and those who booked ANC before 20 weeks of gestation had a lower rate of BBA (3.8%) than those who booked after 20 weeks of GA (25.0%) (p < 0.001).

Variables Actual sample n & (%) BBA-No n & % BBA–Yes (Count & %) X²-value P-value
Age group
<19 years (teenage) 613 (14.9) 591 (96.4%) 22 (3.6%) 32.361 <0.001
 20–29 years 2351 (57.1) 2266 (96.4%) 85 (3.6%)
 30–39 years 1107 (26.9) 1023 (92.4%) 84 (7.6%)
>40 years 45 (1.1) 39 (88.6%) 5 (11.4%)
Parity
 0 (nil) 1233 (30.0) 1208 (98.0%) 25 (2.0%) 91.831 <0.001
 1–2 2337 (56.8) 2224 (95.2%) 113 (4.8%)
 3–4 486 (11.8) 442 (90.9%) 44 (9.1%)
>5 55 (1.3) 41 (74.5%) 14 (25.5%)
Booked for ANC
 No 188 (4.6) 141 (75.0%) 47 (25.0%) 177.795 <0.001
 Yes 3928 (95.4) 3777 (96.2%) 149 (3.8%)
Booking before 20 weeks
 No 1816 (45.7) 1715 (94.5%) 99 (5.5%) 14.866 <0.001
 Yes 2157 (54.3) 2092 (97.0%) 65 (3.0%)
ANC facility
 At KCHC 1637 (41.3) 1586 (96.9%) 50 (3.1%) 8.177 0.004
 Other health facility 2331 (58.7) 2216 (95.1%) 114 (4.9%)
Number of ANC visit
 0 (nil) 188 (4.6) 169 (77.5%) 49 (22.5%) 42.215 <0.001
 1–2 346 (8.4) 322 (93.3%) 23 (6.7%)
 3–4 764 (18.6) 731 (95.7%) 33 (4.3%)
 5–6 1188 (28.9) 1139 (96.0%) 48 (4.0%)
 7–8 988 (24.0) 959 (97.1%) 29 (2.9%)
9 612 (14.9) 598 (97.7%) 14 (2.3%)
HIV status
 Negative 2457 (59.7) 2366 (96.3%) 90 (3.7%) 16.244 <0.001
 Positive 1659 (40.3) 1552 (93.6%) 106 (6.4%)
Syphilis status
 Negative 4034 (98.0) 3845 (95.4%) 187 (4.6%) 7.332 0.007
 Positive 81 (2.0) 72 (88.9%) 9 (11.1%)
Preterm birth (GA at birth)
 Yes (<37 weeks) 1140 (27.7) 1045 (91.7%) 94 (8.3%) 42.215 <0.001
 No (>37 weeks) 2975 (72.3) 2872 (96.6%) 102 (3.4%)
Low birth weight deliveries
 Yes 414 (10.1) 362 (87.4) 52 (12.6) 61.633 <0.001
 No 3701 (89.9) 3557 (96.1) 144 (3.9)
PPH (Postpartum hemorrhage)
 No 4078 (99.2) 3884 (95.3%) 194 (4.7%) 1.241 0.265
 Yes 34 (0.8) 31 (91.2%) 3 (8.8%)
Still Birth
 No 4056 (98.5) 3874 (95.6%) 180 (4.4%) 64.376 <0.001
 Yes 60 (1.5) 44 (73.3%) 16 (26.7%)
Early neonatal death (<7 days)
 No 4080 (99.1) 3884 (95.2%) 194 (4.8%) 0.050 0.823
 Yes 36 (0.9) 34 (94.4%) 2 (5.6%)
Live birth
 No 63 (1.5) 47 (74.6%) 16 (25.4%) 60.029 <0.001
 Yes 4053 (98.5) 3871 (95.6%) 180 (4.4%)
Table II. Output of Cross-Table Analysis Between Exposure and Outcome Variables with X2 and P Values

Women who attended KCHC had a lower rate of BBA (3.1%) compared to those at other health health facility (4.9%) (p = 0.004), suggesting that the type of ANC facility also had an effect on BBAs. The group of pregnant women who had no or few ANC visits had higher rates of BBAs than the group that had nine or more ANC visits. For example, pregnant women who never attended ANC had the highest incidence of BBA (22.5%), while the group that had nine or more ANC visits had the lowest rate (2.3%). Maternal illnesses significantly affected pregnancy; mothers with HIV and syphilis infections had higher BBA rates of 6.4% and 11.1%, respectively, than mothers without HIV (3.7%, p < 0.001) and syphilis (4.6%, p = 0.007). Newborns with LBW (less than 2.5 kg) and preterm delivery (less than 37 weeks gestational age) exhibited substantially differing BBA rates. For instance, the percentage of BBA in preterm births was greater of 8.3% than in term births of 3.4% (p < 0.001), while the percentage of BBA was much lower (3.9%) in the non BBA group than in the BBA of 12.6% (p < 0.001). BBA rates were substantially greater among women who had still births (26.7% negative) than their counter part (p < 0.001) and similarly BBA rate was lower of 4.4% of all live birth than 25.4% of those who did not have (p < 0.001), indicating significant links between stillbirths and live births on BBAs.

Consequences and Correlation of BBA on Pregnancy Outcomes

The effects of BBA on maternal and perinatal outcomes are also displayed in Tables II and III. Just three (1.5%) of the 196 BBAs, for instance, had PPH, compared to 193 (0.8%) of the 3914 women in the non-BBA group (p > 0.05). In a similar vein, the BBA group’s stillbirth rate of 8.2% is significantly greater than that of the non-BBA group, which is (1.1%, p < 0.001). Additionally, BBA was substantially linked to LBW and preterm deliveries. 94/1139 (8.2%) of term deliveries are higher than 102/2924 (3.4%) of preterm deliveries among the 196 BBAs (p < 0.001). It is discovered that the rate of LBW is higher in BBA women (52/414, 12.5%) than in non-BBA women (144/3699, 3.8%). BBA did not, however, substantially correlate with maternal PPH or ENND (p > 0.05). In summary, the BBA group had significantly higher rates of stillbirth (8.2%), PTB birth (8.3%), and LBW delivery (12.6%) (p < 0.05).

BBA PPH PTB Live birth Still birth ENND LBW
BBA Pearson correlation 1 0.017 −0.157** −0.121** 0.125** 0.003 −0.122**
Sig. (2-tailed) 0.266 0.000 0.000 0.000 0.825 0.000
Sum of squares and cross-products 186.648 1.378 −382.198 −12.994 13.137 0.282 −32.247
Covariance 0.045 0.000 −0.093 −0.003 0.003 0.000 −0.008
N 4108 4108 4108 4108 4108 4108 4108
Bootstrap Bias 0 0.001 −0.001 0.000 0.001 0.001 0.000
Std. error 0 0.022 0.026 0.032 0.033 0.017 0.023
95% Lower 1 −0.019 −0.212 −0.186 0.062 −0.022 −0.166
Confidence interval Upper 1 0.064 −0.110 −0.059 0.191 0.043 −0.079
Table III. Corelation of BBA and Pregnancy Outcome Variables

Correlation using data from 4108 instances, BBA and maternal and neonatal health outcomes, such as PPH, PTB, Live Births, Stillbirths, ENNDs, and LBW were conducted. Accordingly, there are negative correlation between BBA and PTB (−0.157), LBW (−0.122), and live birth rate (−0.121). This suggests that infants born prior to arrival typically have lower birth weights, lower PTBs, and somewhat lower live birth rates. Although there was no significant link between BBA cases and either postpartum hemorrhage or early neonatal mortality, a positive correlation with stillbirths (0.125) indicates a slightly greater risk of stillbirth.

Identification of Risk Factors for BBA

The logistic regression output (Table IV) shows that parity is strongly associated with BBA. As the parity of women are lower, the chances of BBA are lower too. For example, women with nil parity are 95% (OR = 0.054, 95% CI; 0.021:0.140, p < 0.001), parity 1–2, 84% (OR = 0.164, 95% CI; 0.076:0.350, p < 0.001) and parity 3–4 (OR = 0.27, 95% CI; 0.12:0.60, p = 0.001) 74% less likely to have BBA than those women who had parity 5 or more. Similarly, women who are having ANC at KCHC shows lower OR of 0.63 (95% CI; 0.44:0.91, p = 0.014) compared to having ANC at other health facility. On the contrary, women who are having ANC visit 0 shows a higher OR of 3.41 (95% CI; 1.205:9.66, p = 0.021) compared to women having 9 or more ANC visits. Preterm and LBW deliveries are also associated with higher chances of BBA. The ORs for Preterm delivery are 1.53 (95% CI; 1.05:2.22, p = 0.024) and 2.41 (95% CI: 1.53:3.79, p < 0.001), respectively.

Exposure variables for BBA P values OR 95% CI for OR
Variables Lower Upper
Age 0.181
 Teenage (14–19 years) 0.205 2.608 0.591 11.504
 20–29 years 0.622 1.410 0.360 5.523
 30–39 years 0.402 1.770 0.465 6.740
Parity 0.000
 Nil (0) <0.001 0.054 0.021 0.140
 1–2 <0.001 0.163 0.076 0.350
 3–4 0.001 0.276 0.125 0.605
 Preterm (<37 weeks) delivery 0.024 1.533 1.059 2.220
 Low birth weight (<2.5 kgs) <0.001 2.413 1.534 3.795
 ANC facility KCHC 0.014 0.637 0.445 0.912
 ANC booking before 20 weeks of GA 0.191 1.288 0.881 1.883
 Syphilis status negative 0.166 0.553 0.239 1.277
 HIV status-negative 0.065 0.716 0.502 1.021
Number of ANC visit 0.141
 ANC visit (0) 0.021 3.412 1.205 9.667
 ANC visit (1–2) 0.075 1.971 0.933 4.162
 ANC visit (3–4) 0.529 1.249 0.625 2.495
 ANC visit (5–6) 0.218 1.491 0.790 2.811
 ANC visit (7–8) 0.626 1.179 0.609 2.281
Constant 0.999 13896.794
Table IV. Logistic Regression Output for BBA

Discussion

This study included all women who delivered at KCHC and BBA mothers attended for care for them and their neonates between 2018 and 2022. Given the socioeconomic status of the catchment population, it is assumed that most deliveries occur at KCHC because it is the only medical institution in the area specifically dedicated to maternity care. Some may have had access to private facilities outside of the catchment region, though. This study did not include all pregnant women because high-risk pregnant patients were also referred to hospitals. The behavioral element of women was not evaluated. Abortions, maternal deaths, and intensive care unit admissions were not reported in the study. These figures, however, contained a great deal of delivery data from the residents of the townships of Clermont and Kwadabeka during a five-year period, which may be useful for trend analysis and comparison. Almost all, 97% of pregnant women had at least one ANC visit in a health facility, and 96% delivered in a facility with a skilled birth attendant, according to the most recent SADHS data [5]. However, the percentage of expectant women in our area who gave birth at KCHC and outside remained unclear or unknown. However, the residence lives close by to KCHC, lower socioeconomic status of the catchment population, free maternity healthcare in South African public health facilities, and policies are in place to encourage pregnant women to use public health facilities, one could expect a higher health service utilization rate by the target population. However, the retrospective review of birth registrations led to information bias, which further limited the study variables’ availability. For instance, cultural practices and the socioeconomic status of expectant mothers—those are known risk factors for BBA—were not included in the birth register [29]–[31].

A nation’s BBA rate is a measure of how easily accessible perinatal care is, and a rate of more than 1.5% is typically viewed as undesirable [42]. Our study’s average BBA rate is 4.8%, with yearly rates dropping sharply from 6.4% in 2019 to a lower rate of 3.8%. This is a higher prevalence in the study area since the BBA rate is a measure of access to perinatal care, and a rate higher than 1.5% indicates difficulties in the delivery of healthcare, for which suitable solutions are necessary [42]. Our study’s rate, however, is comparable to the previous report from a MOU of another SA province [12]. The falling trend of BBA rate in our facility is good. Ethiopia also observed a similar downward trend. 15% in 2024, down from a higher rate of 50% in 2014 [1], [11]. There are a number of potential causes for this drop in our study, including i) better access to healthcare for mothers and ii) outside influences such the COVID-19 epidemic in SA during 2020 to 2022. The implementation of Community Healthcare Workers (CHWs) in the community to address chronic illnesses and provide household-level maternal and pediatric healthcare.

In low- and middle-income nations where there are shortages of professional health workers, community health workers (CHWs) are commonly used as part of the health system to offer health care to mothers and children in their homes. In general, CHWs are community members who are selected by their community and serve in their community to deliver culturally competent health care [43]. According to a Rural KZN report, CHWs gave expectant moms accurate and pertinent health information. Mothers were pleased with CHW visits and appreciated that the CHWs were aware of their life experiences and could therefore offer them accessible and pertinent guidance and assistance [44]. The educational intervention from the midwife to ANC users on identification of labor pain, planning for selected health facility delivery and educating pregnant women on the adverse effects of BBAs are some [44]. For instance, unattended births at home and while traveling to the hospital accounted for 3.2% of BBAs in the Maribor region of Slovenia [45]. With an average rate of 4.2% from 1992 to 2011, the tendency is also noticeable in Australia [45]. The BBA rates are seen to steadily rising in SA; for instance, it was 5.4% in 2009 [1] and 10% in 2013 [46], compared to 5.7% in KwaZulu-Natal, 5% in Gauteng [1] and 4.6% from Nkangala District of South Africa [12]. Therefore, our study’s BBA rate of 4.8% is in line with recent findings from SA and other sources [4], [46].

Potential obstetric predictors, such as women’s parity, showed that women with parity nil or primigravid were 95% (OR = 0.054) less likely to have BBA than women with parity 1–2, 84% (OR = 0.164), and parity 3–4, 74% (OR = 0.63) less likely to have BBA than women with parity five or more. Therefore, women who are great multiparous—that is, have five or more pregnancies—are more likely to have BBA. Grand multiparity, defined as having five or more prior births, was nearly nine times more likely to have BBA [40], according to a prior study. Compared to their primigravid or lesser multigravida counterparts, grand multigravidas (parity >5) may be more likely to experience more abrupt labor. This is in line with earlier research that shown that BBA is linked to low maternal age, low education, poor transportation access, and multiparty were linked to a shorter second stage of labor [4], [42]. It is commonly accepted that lowering the prevalence of BBA and guaranteeing expert attention throughout pregnancy and delivery are essential to lowering perinatal adverse outcomes, such as stillbirths and neonatal deaths [47]. The staffing of MOU and PHC clinics in the KCHC catchment area may have contributed to the reduced OR of 0.63 for women who received ANC at KCHC as opposed to women who received ANC at other medical facilities for BBAs. Midwives are not employed by PHC facilities to provide maternity care. Basic ANC is provided by PHC-trained nurses on maternity care who might not be proficient in health education to encourage expectant mothers to stay away from the occurrence of BBAs (47).

In our PHC setup, we discovered that women without ANC were at risk for BBA (OR = 3.4) due to their close proximity to the catchment population. Compared to 40.3% of moms who were hospitalized for delivery, 78.0% of BBA mothers did not attend ANC, according to a Kenyan study [48]. Ethiopia and Kenya showed a comparable degree of correlation between BBA and not receiving prenatal care (AOR = 2.6) [11], [48]. Moreover, a study discovered that fewer than or equivalent to four ANC visits was a risk factor for premature labor and preterm birth, which frequently result in BBA [49]. A midwife and the patient who will give birth to the mother when she presents in labor may get along well if there are more ANC interactions. Higher odds of BBA were also linked to preterm and LBW newborns. The odds ratios for preterm and LBW deliveries are, respectively, 1.53 and 2.41. BBAs are more likely to occur in preterm and LBW infants due to precipitated labor [49]. Additionally, BBAs were observed to have a low birth weight and a substantial risk of preterm, which is consistent with other study findings [13].

Conclussion

According to the survey, the prevalence of BBA is trending downward. These results emphasize how crucial early ANC scheduling and sufficient ANC visits are to lowering BBA and enhancing pregnancy outcomes. Prematurity and low birth weight are major consequences of BBAs. BBA is something that can be avoided. Future studies should examine the behavioral and socioeconomic characteristics of service consumers and healthcare professionals that affect BBAs’ ability to create more successful intervention plans.

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