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Machine learning study using 2020 SDHS data to determine poverty determinants in Somalia.

Abdirizak A Hassan1, Abdisalam Hassan Muse2, Christophe Chesneau3

  • 1School of Postgraduate Studies and Research, Amoud University, Amoud Valley, Borama, Awdal, 25263, Somalia.

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|March 13, 2024
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Summary
This summary is machine-generated.

Machine learning models accurately predict poverty in Somalia, outperforming traditional methods. The random forest model showed the best performance, identifying key poverty predictors.

Keywords:
Classical regressionDemographyMachine learningModel precisionRandom forestSomaliaSustainability

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Area of Science:

  • Computational socioeconomic analytics and demographic modeling.
  • Application of advanced machine learning algorithms to national survey datasets.
  • Poverty prediction in Somalia using high-dimensional cross-sectional data.

Background:

Prior research has shown that traditional regression analysis often fails to capture the complex, non-linear relationships inherent in socioeconomic datasets, leading to limited prediction capability in developing nations. It was already known that developing nations face significant challenges in accurately identifying the underlying drivers of economic hardship due to the absence of advanced computational frameworks. Conventional statistical methods frequently lack the predictive power necessary for granular policy interventions in volatile regions like the Horn of Africa, where economic conditions fluctuate rapidly. The absence of comprehensive demographic data has historically hindered the development of robust analytical models for assessing household deprivation levels across diverse ecological and social landscapes. Researchers have struggled to move beyond descriptive statistics when evaluating the multifaceted nature of vulnerability among nomadic pastoralists, agro-pastoralists, and urban populations. This gap motivated the utilization of the first-ever 2020 Somalia Demographic and Health Survey (SDHS) to enhance predictive accuracy through the application of modern machine learning techniques.

Purpose Of The Study:

This investigation seeks to implement advanced machine learning (ML) architectures to forecast economic status within the diverse Somali population using the most recent demographic data available. The researchers aimed to compare the efficacy of modern algorithmic approaches against standard linear modeling techniques used in previous demographic studies to determine the most accurate predictive framework. Identifying the most influential determinants of household welfare remains a primary objective of this computational analysis using the 2020 Somalia Demographic and Health Survey (SDHS) data. The study focuses on categorizing the specific demographic variables that contribute most significantly to regional poverty levels across different ecological zones and residential types. By leveraging high-dimensional survey data, the team intended to provide a more nuanced understanding of vulnerability across nomadic, agro-pastoralist, and urban groups. Establishing a reliable predictive framework could assist policymakers in targeting resources toward the most at-risk communities identified by the algorithms through rigorous data evaluation.

Main Methods:

The research team employed a cross-sectional study design based on the 2020 Somalia Demographic and Health Survey (SDHS) dataset to ensure a representative sample of the population. Analysts utilized R software version 4.1.2 to execute the Random Forest (RF), Decision Tree (DT), and Support Vector Machine (SVM) algorithms for predictive modeling. Conventional logistic regression models were processed using STATA version 17 to provide a baseline for performance comparison against the advanced machine learning methods. Model evaluation relied on a comprehensive suite of metrics including the Area Under the Receiver Operating Characteristic (AUROC) and the F1 score to determine classification success. The investigators also calculated precision, sensitivity, specificity, and recall through a detailed confusion matrix analysis to ensure model robustness across different socioeconomic categories. These computational tools allowed for the systematic ranking of predictors such as household size, geographical residence, and the age of the household head.

Main Results:

The Random Forest (RF) model emerged as the most effective classifier, achieving a peak prediction accuracy of 98.36% for identifying poverty status within the surveyed population. Overall poverty prevalence in the nation was found to be approximately 70%, reflecting a significant socioeconomic challenge for the regional government and international aid organizations. Nomadic pastoralists, agro-pastoralists, and internally displaced persons (IDPs) exhibited a poverty average of 69% across the surveyed cohorts, indicating widespread economic vulnerability. Urban populations demonstrated a comparatively lower rate of economic deprivation at 60%, highlighting a distinct rural-urban divide in welfare outcomes across the country. The analysis identified geographical region and household size as the primary determinants influencing the likelihood of falling below the poverty threshold in the Somali context. Other significant predictors included the age of the household head, respondent age group, and the employment status of the husband within the household unit.

Conclusions:

Advanced algorithmic techniques demonstrate superior capability in uncovering hidden socioeconomic patterns that traditional regression methods typically overlook in large, complex demographic datasets. The study establishes the Random Forest (RF) architecture as a robust tool for future economic forecasting and poverty mapping in the region to support data-driven policy. These findings suggest that targeted interventions should prioritize specific geographical areas and larger household units to maximize the impact of limited developmental aid. Integrating machine learning into national survey analysis provides a more precise roadmap for poverty reduction strategies in developing nations facing similar data constraints. Future research may expand these models to include real-time data for dynamic monitoring of vulnerable populations such as internally displaced persons and nomadic groups. The researchers conclude that these predictive insights are vital for optimizing the allocation of humanitarian and developmental resources across the various regions of Somalia.

The Random Forest (RF) model functions as the most effective classifier, allowing researchers to rank predictors like geographical region and household size with a peak accuracy of 98.36%, thereby uncovering hidden socioeconomic patterns that traditional regression analysis cannot detect.

According to the study's authors, the accuracy of poverty prediction for the advanced machine learning methods ranged between 67.21% and 98.36%, with the Random Forest (RF) model demonstrating the best performance across the evaluated metrics.

The 2020 Somalia Demographic and Health Survey (SDHS) was utilized because it represents the first-ever comprehensive survey of its kind in the nation, providing the high-dimensional, cross-sectional data necessary to train advanced machine learning algorithms.

The researchers found that nomadic pastoralists, agro-pastoralists, and internally displaced persons (IDPs) exhibited a poverty average of 69%, which is significantly higher than the 60% poverty rate observed in urban areas of the country.

The study's authors propose that machine learning methods, particularly the Random Forest (RF) model, are vital for future economic forecasting because they can uncover hidden information and provide a precise roadmap for poverty reduction strategies.