Edge-First Adaptive Learning with Lightweight RL and LNN for STEM Education in Low- Resource Kenyan Schools

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Author(s)

David Shiala Ongoma 1

1. Department of ICT, Media, and Engineering, Zetech University, Kenya

* Corresponding author.

DOI: https://doi.org/10.5815/ijeme.2026.04.06

Received: 20 Mar. 2026 / Revised: 18 Jun. 2026 / Accepted: 9 Jul. 2026 / Published: 8 Aug. 2026

Index Terms

Adaptive Learning, Artificial Intelligence, STEM Education, Resource-Constraint Schools, Reinforcement Learning, Educational Technology, Kenya

Abstract

While artificial intelligence (AI) holds significant promise for personalizing education, research on AI applications in resource-constrained settings remains limited. This paper describes a proposed AI-based adaptive learning system that aims to personalize STEM education in a low-resource school environment in Kenya. The system addresses key challenges including irregular internet connectivity, limited hardware infrastructure, and teachers’ lack of prior experience with AI technologies. To address these issues, an adapted reinforcement learning algorithm will personalize the content shown to students, and a modified liquid neural network is used for the prediction of student success, while not being computationally expensive. As compared to traditional adaptive systems, this adaptive learning platform supports edge computing and offline updates in order to operate in a consistently low connectivity environment. Furthermore, the platform improves the educational experience by dynamically adjusting content difficulty, format, and pacing to align with individual students’ learning styles, prior knowledge, and attention levels. An 8-month case study was done with 6 Kenyan low-resource schools and 6 comparison schools located in the city. In this case, we report a 31% increase in the level of understanding of students’ key STEM subjects, 27% reduction in student drop rate from STEM topics, and 43% increase in teacher efficiency over traditional methods. Additionally, the system achieved 89% prediction accuracy with a memory footprint of only 1.9 MB, making it feasible for deployment on budget Android devices. This study presents evidence that the utilization of AI for personalized adaptive learning technologies in order to minimize the disparities in the provision of STEM education in low-resource settings worldwide is possible. 

Cite This Paper

David Shiala Ongoma, “Edge-First Adaptive Learning with Lightweight RL and LNN for STEM Education in Low-Resource Kenyan Schools”, International Journal of Education and Management Engineering (IJEME), Vol.16, No.4, pp. 71-88, 2026. DOI:10.5815/ijeme.2026.04.06

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