Research Article | | Peer-Reviewed

Determinants of Risk Factors Associated with Low Birth Weight in Nigeria

Received: 26 July 2024     Accepted: 16 August 2024     Published: 30 August 2024
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Abstract

Low birth weight (LBW) remains a significant public health challenge with profound implications for neonatal and child health, particularly in low-income countries. Defined by the World Health Organization as a birth weight of less than 2.5 kilograms, LBW contributes to increased neonatal mortality and long-term developmental issues. This study examines the prevalence and determinants of LBW in Nigeria, leveraging data from the 2018 Nigeria Demographic and Health Survey (NDHS). The study employs a cross-sectional design and a stratified two-stage sampling technique, analyzing 7,728 recorded birth weights. Key findings indicate that maternal age, education, and socio-economic status significantly influence birth weight. Optimal reproductive ages (25-34 years) and higher educational attainment are associated with healthier birth weights, whereas younger (below 20 years) and older mothers (above 40 years), and those with lower education levels, face higher LBW risks. Employment and wealth are positively correlated with better birth outcomes, underscoring the importance of financial stability. Environmental factors such as urban residence, access to improved water sources, and sanitation facilities also play crucial roles in determining birth weight. The study compares frequentist logistic regression and Bayesian structured additive logistic regression models to identify and predict LBW risk factors, highlighting regional disparities within Nigeria. The findings emphasize the need for targeted interventions addressing socio-demographic, socio-economic, and environmental determinants to reduce the prevalence of LBW and improve maternal and child health outcomes. Enhanced understanding of these factors through advanced statistical modeling can inform policy and health interventions, ultimately contributing to achieving global health targets and improving neonatal health in Nigeria.

Published in American Journal of Nursing and Health Sciences (Volume 5, Issue 3)
DOI 10.11648/j.ajnhs.20240503.15
Page(s) 77-87
Creative Commons

This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited.

Copyright

Copyright © The Author(s), 2024. Published by Science Publishing Group

Keywords

Low Birth Weight (LBW), Neonatal Health, Socio-Economic Determinants, Maternal Education, Environmental Factors

1. Introduction
Low birth weight (LBW) is a critical public health issue, with significant implications for neonatal and child health globally. Defined by the World Health Organization (WHO) as a birth weight of less than 2.5 kilograms, LBW is a major contributor to prenatal and neonatal mortality and morbidity . LBW is a key risk factor associated with increased susceptibility to infections, childhood illnesses, and reduced survival probabilities, leading to long-term physical and cognitive challenges for affected children . This condition accounts for approximately 40% of all deaths among children under five, with a substantial proportion occurring within the first week of life .
The causes of LBW are multifaceted and complex. Primary factors include preterm birth (less than 37 weeks of gestation) and intrauterine growth restriction. Additional maternal risk factors encompass smoking, age, educational status, marital status, weight gain during pregnancy, hypertension, infections during pregnancy, prenatal care, and parity . In low-income countries, poor maternal health and nutrition significantly contribute to the high prevalence of LBW, further exacerbated by common illnesses such as diarrhea, malaria, and respiratory infections .
Environmental and socioeconomic factors also play a crucial role. Poor family background, a history of reproductive issues, and maternal exposure to air pollution are significant contributors to the incidence of LBW . The World Health Assembly Resolution 65.6, adopted in 2012, highlighted the importance of addressing maternal, infant, and early child nutrition, setting global targets to reduce LBW by 30% by 2025 . Despite these efforts, the global burden of LBW remains high, with approximately 18 million LBW infants born annually, varying significantly across regions .
In sub-Saharan Africa, the prevalence of LBW varies widely. In Ethiopia, for instance, the incidence is 28.3%, while in Zimbabwe, there are 199 LBW newborns per 1,000 live births. Nigeria also faces a substantial burden, with approximately 5-6 million LBW infants born annually . The prevalence rates within Nigeria show significant regional variation, with incidences reported as 12.1% in Jos, 11.4% in Ogun, and 16.9% in Maiduguri .
The health implications of LBW extend beyond infancy. LBW is linked to an increased risk of non-communicable diseases such as diabetes and cardiovascular disease in later life. Moreover, preterm and underweight neonates admitted to neonatal intensive care units face severe medical challenges, long-term medication, and higher mortality risks . The cognitive and developmental impacts include long-term cerebral impairment, delayed language development, and increased susceptibility to chronic conditions .
Efforts to reduce the prevalence of LBW are crucial. The 2012 World Health Assembly set a target to reduce the number of LBW newborns by 30% by 2025, translating to a 3% annual reduction from 2012 to 2025 . Strategies to achieve this include improving maternal nutritional status, addressing pregnancy-related illnesses, and providing comprehensive maternal and perinatal care . However, disparities persist, with LBW predominantly affecting low- and middle-income countries (LMICs), particularly among vulnerable populations .
Enhancing the quality and frequency of birth weight reporting is vital for tracking progress and implementing effective interventions. In 2015, one-third of all births lacked birth weight data, with Africa accounting for more than half of these unreported cases . Strengthening national surveillance systems to improve data collection and reporting on LBW is essential for setting targets, developing effective programs, and monitoring progress. This approach will help reduce the prevalence of LBW not only in Nigeria but globally . Despite the progress made, LBW remains a global challenge, with significant implications for both developing and developed countries.
The primary objective of this study is to assess the spatial distribution and compare the performance of frequentist logistic regression and Bayesian structured additive logistic regression models in identifying the risk factors for low birth weight (LBW) in Nigeria. Specifically, the study aims to determine the regions in Nigeria where LBW is prevalent, assess the spatial distribution of LBW, compare the predictive accuracy of the aforementioned statistical models, and examine the hierarchical nature of LBW risk factors. The significance of this study lies in its potential to provide critical insights into the regional disparities and determinants of LBW in Nigeria. By employing advanced statistical models, the research seeks to enhance understanding of LBW’s underlying risk factors, inform targeted interventions, and ultimately contribute to reducing the prevalence of LBW, thereby improving neonatal and child health outcomes across Nigeria.
2. Method
2.1. Study Design
The study employs a cross-sectional design, utilizing data from the 2018 Nigeria Demographic and Health Survey (NDHS). This survey is based on the National Population and Housing Census (NPHC) conducted by the National Population Commission in 2006. The survey is stratified and executed in two stages. In the first stage, enumeration areas (EAs) are selected, and in the second stage, households within these EAs are systematically chosen. Data collection is conducted exclusively in pre-selected households to avoid bias, ensuring that each household has an equal chance of being included in the survey.
2.2. Sampling Technique
A stratified two-stage sampling technique is utilized in this study. In the first stage, the primary sampling units (PSUs), referred to as clusters, are identified. These clusters are based on enumeration areas (EAs) from the 2006 census data. Each of the 36 states and the Federal Capital Territory (FCT) is divided into urban and rural strata. In the second stage, households are systematically selected from these clusters. This method ensures that both urban and rural areas are adequately represented, providing a comprehensive overview of the population.
2.3. Data Collection
Data for this study is extracted from the 2018 NDHS women recode. This includes information on 33,742 live births reported by women aged 15 to 49 years. Out of these, 7,728 babies had their birth weights recorded, while 24,992 did not, with 2,204 cases excluded due to missing birth weight data. The dependent variable is birth weight, categorized as either low birth weight (birth weight < 2.5 kg) or normal birth weight (birth weight ≥ 2.5 kg). The independent variables encompass socio-demographic, socio-economic, and environmental factors such as maternal age, education level, religion, ethnicity, parity, maternal weight and height, sex of the child, residential type, employment status, wealth index, maternal nutritional status, smoking status, ante-natal visits, presence of illness, and geographical zone.
2.4. Ethical Considerations
The 2018 NDHS adheres to strict ethical guidelines to ensure the protection and confidentiality of participants. Informed consent was obtained from all respondents prior to data collection. The survey protocol was reviewed and approved by the National Health Research Ethics Committee of Nigeria. Data collected is anonymized to protect the identity of participants. Researchers accessing the data are required to comply with the ethical standards set by the NDHS and the National Population Commission, ensuring the privacy and integrity of the information collected.
3. Result
3.1. Socio-Demographic Characteristics (Individual)
This aspect deals with the descriptive analysis of socio-demographic characteristics and socio-economic features of the obtained data.
Table 1. Distribution of Socio-Demographic Characteristics.

Variables

Frequency

Percentage

Maternal Age at Last Birth

Below 20 years

164

2.1

20 – 24 years

1070

13.8

25 – 29 years

2233

28.9

30 – 34 years

2122

27.5

30 – 39 years

1493

19.3

40+ years

646

8.4

Level of Education

No education

647

8.4

Primary

981

12.7

Secondary

4189

54.2

Higher

1911

24.7

Religion

Christianity

5451

70.6

Islam

2251

29.1

Others

26

0.3

Ethnicity

Yoruba

1672

21.6

Hausa

900

11.6

Igbo

2459

31.8

Others

2697

34.9

Gender of Child

Male

3969

51.4

Female

3759

48.6

Birth Order

1

1961

25.38

2

1732

22.41

3

1428

18.48

4

2607

33.73

Birth Interval

1st Birth

1961

25.47

<36 Months

3428

44.52

36+ Months

2311

30.01

Total

7728

100

The above Table 1 established the descriptive analysis of socio-demographic characteristics of the Maternal Age, Level of Education, Religion, Ethnicity, Gender of Child, Birth Order and Birth Interval. The result shows that majority of the women falls within age group 25-29years at 28.9% followed by age- group 30-34years and 35-39years at 27.5% and 19.3% respectively. Majority of the women possesses secondary school education, at 54.2%, followed by higher education at 24.7%, primary school education at 12.7%, and no formal education at 8.4%. Also majority of the women practice Christianity at 70.6%, followed by Islam at 29.1% and other religious practice at 0.3%. Ethnic groups in Nigeria is divided into three major category which were Igbo, Yoruba and Hausa, others were the ethnic groups outside these three major groups. Majority of the women fall under the other ethnic group at 34.9%, followed by Igbo at 31.8%, Yoruba at 21.6% and Hausa at 11.6%. The gender of child, majority of the babies were males at 51% while females were at 49% respectively. Majority of these babies were at birth order number four at 33.7%, followed by birth order number one at 25.5%, and birth order two and three at 22.4% and 18.5% respectively. Likewise the birth interval shows that 44.5% were given birth to at birth interval less than 36months, 30% were given birth to at birth interval greater than 36months, 25.5% were given birth to at first birth. This is further explained in table one above.
3.2. Socio-Economic Characteristics (Community)
Table 2. Distribution of Socio-Economic Demographic Characteristic.

Variables

Frequency

Percentage

Employment Status

Not Working

1753

22.7

Working

5975

77.3

Wealth Index

Poorest

253

3.3

Poorer

620

8.0

Middle

1482

19.2

Richer

2268

29.3

Richest

3105

40.2

BMI

Below 18.5

160

4.6

18.5 to 24.9

1741

50.01

>= 25

1580

45.39

Missing

4247

54.96

No of Ante-natal visits

No Visit

107

1.4

1 - 3 Visits

509

6.6

4 - 7 Visits

2370

30.67

Above 7 Visits

2413

31.22

Missing

2329

30.10

Presence of Fever

No

6072

78.6

Yes

1320

17.1

Missing

336

4.3

Smoking

No

7706

99.7

Yes

22

0.3

Total

7728

100

The above Table 2 established the descriptive analysis of socio-economic characteristics of the Employment status, Wealth index, BMI, No of Ante-natal visits, Presence of fever and maternal smoking status. The result shows that 77.3% of the women were working while the remaining 22.7% were not working. Also majority of the women at 40.2% were from the richest family according to the wealth index, 29.3% were from the richer family, 19.2% represents the middle class, 8% were from the poorer background and 3.3% are from the poorest family background. Likewise, 50.01% of the women have BMI (Body mass index) 18.5-24.9, 43.39% have BMI greater than 25, while 4.6% have BMI below 18.5. Majority of the women have ante-natal visits above 7 visits at 31.22%, 4-7 visits at 30.67%, 1-3 visits at 6.6%, and no ante-natal visit at 1.4%. Furthermore 78.6% of the women do not experience malaria during pregnancy while 17.1% experienced malaria during their period of pregnancy. Likewise the result of work shows that majority of this women do not smoke during pregnancy at 99.7%.
3.3. Environmental Characteristics
Table 3. Distribution of Environmental Characteristic.

Variables

Frequency

Percentage

Residential Type

Urban

4622

59.8

Rural

3106

40.2

De-factor Place of Residence

-

-

Geographical Zone

North Central

1604

20.8

North East

554

7.2

North West

637

8.2

South East

1985

25.7

South South

1154

14.9

South West

1794

23.2

Drinking Water

Unimproved

2788

36.1

Improved

4756

61.5

Others

184

2.4

Type of Cooking Fuel

Electricity

79

1.02

Gas

1667

21.6

Smoking

5815

75.2

Others

167

2.2

Type of Toilet Facilities

Unimproved

3787

49.0

Improved

3773

48.8

Others

168

2.2

Total

7728

100

The above Table 3 established the descriptive analysis of environmental characteristics of the Residential type, Geographical zone, Drinking water, Type of cooking fuel and Type of toilet facilities. The result shows that 59.8% of this women resides in the urban settlement while the remaining 40.2% are from rural area. According to the geopolitical zone, 20.8% of the women are from North Central, 7.2% from North East, 8.2% are from North West, 25.7% are from South East, 14.9% are from South South while the remaining 23.2 % are from South West. Likewise the sources of drinking water of this women showed that 36.1% of the respondent have unimproved sources of drinking water while 61.5% have improved sources of drinking water, the remaining 2.4% do not specify their sources of their drinking water. The type of cooking fuel showed that 1.02% uses electricity, 21.6% uses gas, and 75.2% of the women get their cooking down by using firewood/ charcoal while 2.2% do not specify their means of cooking fuel. Moreover 48.8%of this women used improved toilet facility while 49% used unimproved toilet facility and the remaining 2.2% do not specify the type of toilet facility they used.
3.4. Descriptive Analysis of Birth Weight
Table 4. Distribution of Birth Weight.

Birth Weight

Frequency

Percentage

Low birth weight

1049

13.6

Normal Weight

6679

86.4

Total

7728

100

It can be established from the above table that majority of the birth weight were normal with 6679 86.4%) and minority were low birth weight with 1049 13.6%). This implies that the percentage of low birth weight is 13.6% while that of normal weight is 86.4% in the Nigeria Demographic and Health Survey (NDHS).
3.5. Distribution of Birth Weight and Background Characteristics
This aspect deals with the bivariate descriptive analysis of the birth weight in relation to the socio-demographic and socio-economic risk factors in Nigeria.
Table 5. Distribution of Birth weight by Socio-Demographic Characteristics.

Characteristics

Birth Weight

Chi-square

P-Value

Low birth weight

Normal Weight

Maternal Age at Last Birth

Below 20 years

32 (20%)

132 (80%)

34.564

0.000*

20 – 24 years

185 (17%)

885 (83%)

25 – 29 years

334 (15%)

1899 (85%)

30 – 34 years

251 (12%)

1871 (88%)

30 – 39 years

177 (12%)

1316 (88%)

40+ years

70 (11%)

576 (89%)

Level of Education

No education

138 (21%)

509 (79%)

42.6121

0.000*

Primary

150 (15%)

831 (85%)

Secondary

533 (13%)

3656 (87%)

Higher

228 (12%)

1683 (88%)

Religion

Christianity

644 (12%)

4807 (88%)

52.228

0.000*

Islam

402 (18%)

1849 (82%)

Others

3 (12%)

23 (88%)

Ethnicity

Yoruba

242 (15%)

1430 (85%)

71.3646

0.000*

Hausa

185 (21%)

715 (79%)

Igbo

238 (10%)

2221 (90%)

Others

384 (14%)

2313 (86%)

Gender of Child

Male

490 (12%)

3479 (88%)

10.4944

0.001*

Female

559 (15%)

3200 (85%)

Birth Order

1

303 (16%)

1658 (84%)

1.9768

0.107

2

248 (14%)

1484 (86%)

3

174 (12%)

1254 (88%)

4

324 (12%)

2283 (88%)

Birth Interval

1st Birth

303 (16%)

1658 (84%)

9.3936

0.009*

<36 Months

435 (13%)

2993 (87%)

36+ Months

295 (13%)

2016 (87%)

Note: * - Significant
The Table 5 above revealed the significance of Maternal Age, Level of education, Ethnicity, Religion, Gender of child and birth interval to the birth weight with (p<0.05) and insignificance of birth order with (p>0.05) using the chi-square statistic.
Table 6. Distribution of Birth weight by Socio-Economic Indicators.

Characteristics

Birth Weight

Chi-Square

P-Value

Low birth weight

Normal Weight

Employment Status

Not Working

275 (16%)

1478 (84%)

8.6320

0.003*

Working

774 (13%)

5201 (17%)

Wealth Index

Poorest

59 (23%)

194 (77%)

31.7927

0.000*

Poorer

91 (15%)

529 (85%)

Middle

214 (14%)

1268 (86%)

Richer

321 (14%)

1947 (86%)

Richest

364 (12%)

2741 (88%)

BMI

Below 18.5 (underweight)

60 (38%)

100 (62%)

11.735

0.042*

18.5 to 24.9 (normal weight)

641 (37%)

1100 (63%)

>= 25 (Obesity)

524 (33%)

1056 (67%)

No of Ante-natal visits

No Visit

47 (44%)

60 (56%)

58.8035

0.000*

1 - 3 Visits

201 (40%)

308 (60%)

4 - 7 Visits

880 (37%)

1490 (63%)

Above 7 Visits

975 (40%)

1438 (60%)

Presence of Fever

No

778 (13%)

5294 (87%)

8.561

0.014*

Yes

209 (16%)

1111 (84%)

Smoking

No

1045 (14%)

6661 (86%)

0.3993

0.527

Yes

4 (18%)

18 (82%)

Note: * - Significant
The Table 6 above revealed the significance of, Employment status, Wealth index, No of Ante-natal visits, BMI, and Presence of fever to the birth weight with (p<0.05) and insignificance of Smoking with (p>0.05) using the chi-square statistic.
Table 7. Distribution of Birth weight by Environmental Indicators.

Characteristics

Birth Weight

Chi-Square

P-Value

Low birth weight

Normal Weight

Residential Type

Urban

633 (14%)

3989 (86%)

12.563

0.046*

Rural

416 (13%)

2690 (87%)

Geographical Zone

North Central

258 (16%)

1346 (84%)

95.3159

0.000*

North East

90 (16%)

464 (84%)

North West

143 (23%)

494 (77%)

South East

184 (9%)

1801 (91%)

South South

122 (11%)

1032 (89%)

South West

252 (14%)

1542 (86%)

Drinking Water

Unimproved

395

2393

41.352

0.000*

Improved

637

4119

Others

17

167

Type of Cooking Fuel

Electricity

9

70

21.121

0.050*

Gas

210

1457

Firewood/Charcoal

813

5002

Others

17

150

Type of Toilet Facilities

Unimproved

552

3235

20.285

0.008*

Improved

480

3293

Others

17

151

Note: * - Significant
The Table 7 above revealed the significance of Residential type, Geographical zone, Drinking water, Type of cooking fuel and Type of toilet facilities to the birth weight with (p<0.05) using the chi-square statistic.
4. Discussion
4.1. Socio-Demographic Characteristics
The distribution of maternal age at the last birth shows a concentration of births among women aged 25-29 years (28.9%) and 30-34 years (27.5%). These age groups are often associated with optimal reproductive health, contributing to better pregnancy outcomes, including healthier birth weights . Conversely, younger mothers (below 20 years, 2.1%) and older mothers (40) years, 8.4%) may face higher risks of adverse birth outcomes, such as low birth weight, due to biological immaturity or age-related complications . Education level is a critical determinant of maternal and child health. A significant majority of women (54.2%) have secondary education, while 24.7% have higher education. Higher educational attainment is linked to better health literacy, access to healthcare services, and healthier lifestyle choices, which positively impact birth weight . Women with no education (8.4%) or only primary education (12.7%) are more likely to have low birth weight infants due to limited access to resources and healthcare . Christianity is the predominant religion (70.6%), followed by Islam (29.1%). Religious beliefs and practices can influence health behaviors and access to healthcare. Ethnicity also plays a significant role, with the largest groups being Igbo (31.8%) and Yoruba (21.6%). Ethnic disparities in healthcare access and utilization can lead to differences in birth outcomes . For instance, the Hausa ethnic group, with lower birth weight prevalence (21%), often faces socio-economic challenges that impact maternal and child health.
The data shows a nearly equal distribution of male (51.4%) and female (48.6%) children. Studies indicate that male infants are more susceptible to adverse birth outcomes than females . Birth order and intervals significantly affect birth weight. Firstborns and children born with intervals less than 36 months are at higher risk of low birth weight due to maternal NM NMMN depletion and insufficient recovery time .
4.2. Socio-Economic Characteristics
A majority of women (77.3%) are working, which is generally associated with better financial Mstability and access to healthcare. However, employment also introduces stress and physical demands that can negatively impact birth outcomes . Wealth significantly influences birth weight, with 40.2% of women from the richest families experiencing fewer low birth weight cases (12%) compared to the poorest families (23%). Financial stability ensures better nutrition, healthcare access, and living conditions, all of which contribute to healthier pregnancies and birth weights . BMI is a crucial indicator of maternal health. A healthy BMI (18.5-24.9) is seen in 50.01% of women, correlating with optimal birth weights. Underweight (BMI < 18.5, 4.6%) and overweight/obese women (BMI ≥ 25, 45.39%) face increased risks of adverse birth outcomes, including low birth weight and preterm births . Regular antenatal visits (4-7 visits, 30.67%; above 7 visits, 31.22%) are essential for monitoring pregnancy and preventing complications. Women with no antenatal visits (1.4%) or fewer visits (1-3, 6.6%) are at higher risk of delivering low birth weight infants . Fever during pregnancy, reported by 17.1% of women, can indicate infections like malaria, which significantly increase the risk of low birth weight .
4.3. Environmental Characteristics
Urban residents (59.8%) generally have better access to healthcare facilities and services compared to rural residents (40.2%), leading to better birth outcomes. Geographical disparities also exist, with regions like the Southeast (25.7%) and South West (23.2%) showing better health indicators compared to the North East (7.2%) and North West (8.2%), where healthcare access and socio-economic conditions are poorer . Improved drinking water access (61.5%) is crucial for preventing waterborne diseases that can adversely affect pregnancy. However, 36.1% still use unimproved water sources. The majority (75.2%) rely on firewood/charcoal for cooking, exposing them to indoor air pollution, which is harmful to maternal and fetal health . Access to improved toilet facilities (48.8%) is essential for maintaining hygiene and preventing infections that can complicate pregnancies. The nearly equal distribution of unimproved facilities (49%) highlights significant health risks for pregnant women.
4.4. Descriptive Analysis of Birth Weight
The analysis reveals that 86.4% of infants have normal birth weight, while 13.6% have low birth weight. Low birth weight is a critical indicator of neonatal health and is influenced by various socio-demographic, socio-economic, and environmental factors discussed above. Addressing these factors through targeted interventions is essential for improving maternal and child health outcomes .
4.5. Distribution of Birth Weight and Background Characteristics
Low birth weight is significantly associated with younger maternal age (<20 years, 20%), lower education levels (no education, 21%), certain ethnicities (Hausa, 21%), and shorter birth intervals (<36 months, 13%) (WHO, 2014). Employment status, wealth index, and BMI significantly impact birth weight. Non-working mothers (16%), those from the poorest backgrounds (23%), and those with low BMI (<18.5, 38%) are more likely to have low birth weight infants . Urban residence, geographical zone, and access to improved drinking water and toilet facilities significantly affect birth weight. Urban areas and regions with better healthcare infrastructure report lower instances of low birth weight .
5. Conclusion
The study highlights the complex interplay of socio-demographic, socio-economic, and environmental factors influencing birth weight in Nigeria. Optimal reproductive age, higher education levels, and regular antenatal visits contribute to healthier birth weights, while younger and older maternal ages, lower education, and inadequate prenatal care increase the risk of low birth weight. Socio-economic stability, indicated by employment and wealth, also plays a crucial role, with financial stability linked to better health outcomes. Environmental factors, such as urban residence and access to improved water and sanitation, further impact birth weight. To improve maternal and child health outcomes, targeted interventions addressing these multifaceted determinants are essential. However, it is highly recommended to carry out further studies on comparing birth weight in different communities in Nigeria and in comparison with other countries.
Abbreviations

LBW

Low Birth Weight

WHO

World Health Organization

NDHS

Nigeria Demographic and Health Survey

EAs

Enumeration Areas

NPHC

National Population and Housing Census

BMI

Body Mass Index

Conflicts of Interest
The authors declare no conflicts of interest.
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    Avwerhota, O. O., Avwerhota, M., Daniel, E. O., Popoola, T. A., Popoola, I. O., et al. (2024). Determinants of Risk Factors Associated with Low Birth Weight in Nigeria. American Journal of Nursing and Health Sciences, 5(3), 77-87. https://doi.org/10.11648/j.ajnhs.20240503.15

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    Avwerhota, O. O.; Avwerhota, M.; Daniel, E. O.; Popoola, T. A.; Popoola, I. O., et al. Determinants of Risk Factors Associated with Low Birth Weight in Nigeria. Am. J. Nurs. Health Sci. 2024, 5(3), 77-87. doi: 10.11648/j.ajnhs.20240503.15

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    AMA Style

    Avwerhota OO, Avwerhota M, Daniel EO, Popoola TA, Popoola IO, et al. Determinants of Risk Factors Associated with Low Birth Weight in Nigeria. Am J Nurs Health Sci. 2024;5(3):77-87. doi: 10.11648/j.ajnhs.20240503.15

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  • @article{10.11648/j.ajnhs.20240503.15,
      author = {Oladayo Olarinre Avwerhota and Michael Avwerhota and Ebenezer Obi Daniel and Taiwo Aderemi Popoola and Israel Olukayode Popoola and Adebanke Adetutu Ogun and Ahmed Mamuda Bello and Michael Olabode Tomori and Aisha Oluwakemi Salami and Celestine Emeka Ekwuluo and Olukayode Oladeji Alewi and Aremu Bukola Janet},
      title = {Determinants of Risk Factors Associated with Low Birth Weight in Nigeria
    },
      journal = {American Journal of Nursing and Health Sciences},
      volume = {5},
      number = {3},
      pages = {77-87},
      doi = {10.11648/j.ajnhs.20240503.15},
      url = {https://doi.org/10.11648/j.ajnhs.20240503.15},
      eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.ajnhs.20240503.15},
      abstract = {Low birth weight (LBW) remains a significant public health challenge with profound implications for neonatal and child health, particularly in low-income countries. Defined by the World Health Organization as a birth weight of less than 2.5 kilograms, LBW contributes to increased neonatal mortality and long-term developmental issues. This study examines the prevalence and determinants of LBW in Nigeria, leveraging data from the 2018 Nigeria Demographic and Health Survey (NDHS). The study employs a cross-sectional design and a stratified two-stage sampling technique, analyzing 7,728 recorded birth weights. Key findings indicate that maternal age, education, and socio-economic status significantly influence birth weight. Optimal reproductive ages (25-34 years) and higher educational attainment are associated with healthier birth weights, whereas younger (below 20 years) and older mothers (above 40 years), and those with lower education levels, face higher LBW risks. Employment and wealth are positively correlated with better birth outcomes, underscoring the importance of financial stability. Environmental factors such as urban residence, access to improved water sources, and sanitation facilities also play crucial roles in determining birth weight. The study compares frequentist logistic regression and Bayesian structured additive logistic regression models to identify and predict LBW risk factors, highlighting regional disparities within Nigeria. The findings emphasize the need for targeted interventions addressing socio-demographic, socio-economic, and environmental determinants to reduce the prevalence of LBW and improve maternal and child health outcomes. Enhanced understanding of these factors through advanced statistical modeling can inform policy and health interventions, ultimately contributing to achieving global health targets and improving neonatal health in Nigeria.
    },
     year = {2024}
    }
    

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  • TY  - JOUR
    T1  - Determinants of Risk Factors Associated with Low Birth Weight in Nigeria
    
    AU  - Oladayo Olarinre Avwerhota
    AU  - Michael Avwerhota
    AU  - Ebenezer Obi Daniel
    AU  - Taiwo Aderemi Popoola
    AU  - Israel Olukayode Popoola
    AU  - Adebanke Adetutu Ogun
    AU  - Ahmed Mamuda Bello
    AU  - Michael Olabode Tomori
    AU  - Aisha Oluwakemi Salami
    AU  - Celestine Emeka Ekwuluo
    AU  - Olukayode Oladeji Alewi
    AU  - Aremu Bukola Janet
    Y1  - 2024/08/30
    PY  - 2024
    N1  - https://doi.org/10.11648/j.ajnhs.20240503.15
    DO  - 10.11648/j.ajnhs.20240503.15
    T2  - American Journal of Nursing and Health Sciences
    JF  - American Journal of Nursing and Health Sciences
    JO  - American Journal of Nursing and Health Sciences
    SP  - 77
    EP  - 87
    PB  - Science Publishing Group
    SN  - 2994-7227
    UR  - https://doi.org/10.11648/j.ajnhs.20240503.15
    AB  - Low birth weight (LBW) remains a significant public health challenge with profound implications for neonatal and child health, particularly in low-income countries. Defined by the World Health Organization as a birth weight of less than 2.5 kilograms, LBW contributes to increased neonatal mortality and long-term developmental issues. This study examines the prevalence and determinants of LBW in Nigeria, leveraging data from the 2018 Nigeria Demographic and Health Survey (NDHS). The study employs a cross-sectional design and a stratified two-stage sampling technique, analyzing 7,728 recorded birth weights. Key findings indicate that maternal age, education, and socio-economic status significantly influence birth weight. Optimal reproductive ages (25-34 years) and higher educational attainment are associated with healthier birth weights, whereas younger (below 20 years) and older mothers (above 40 years), and those with lower education levels, face higher LBW risks. Employment and wealth are positively correlated with better birth outcomes, underscoring the importance of financial stability. Environmental factors such as urban residence, access to improved water sources, and sanitation facilities also play crucial roles in determining birth weight. The study compares frequentist logistic regression and Bayesian structured additive logistic regression models to identify and predict LBW risk factors, highlighting regional disparities within Nigeria. The findings emphasize the need for targeted interventions addressing socio-demographic, socio-economic, and environmental determinants to reduce the prevalence of LBW and improve maternal and child health outcomes. Enhanced understanding of these factors through advanced statistical modeling can inform policy and health interventions, ultimately contributing to achieving global health targets and improving neonatal health in Nigeria.
    
    VL  - 5
    IS  - 3
    ER  - 

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    1. 1. Introduction
    2. 2. Method
    3. 3. Result
    4. 4. Discussion
    5. 5. Conclusion
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