Agile Aerospace Engineering Education: GenAI to Navigate Resource Constraints

Authors

DOI:

https://doi.org/10.65269/qcx2b691

Keywords:

aerospace education, curriculum mapping, theoretical isomorphism

Abstract

The traditional paradigm of aerospace engineering education in emerging economies is currently trapped in a “resource mirage”—an attempt to replicate heavily funded Western laboratory models within fiscally constrained environments. This mismatch creates a static curriculum decoupled from local industrial realities. This study addresses this dependency by proposing a Dual-Stream Agile Framework that shifts pedagogical focus from rigid course-level structures (“molecular”) to fundamental engineering competencies (“atoms”). Leveraging Generative Artificial Intelligence (Gemini 1.5 Pro) as a human-in-the-loop diagnostic engine, the pipeline text-mines an audited screening corpus of N = 1,420 public news and state enterprise records from 2022 to 2026, isolating N = 40 core industrial operational frictions decomposed into 109 canonical pedagogical atoms. A two-gate audit protocol established high inter-coder reliability for atom extraction (Cohen’s κ = 0.812) and expert policy alignment evaluation (Fleiss’ κ = 0.782 across N = 16 domain experts). Quantitative policy mapping across 15 curriculum clusters (C01–C15) and ten strategic pillars of Zimbabwe’s National Development Strategy 2 (NDS-2) yielded an Aggregate Alignment Coefficient of Γ = 0.730. Expert validation survey results confirmed strong professional agreement on Industrial Relevance (Median = 4.0, µ = 4.38/5.0, CV = 14.1%) and Academic Rigor (Median = 4.0, µ = 4.06/5.0, CV = 14.1%), alongside high Equipment Substitution Fidelity (Fs = 0.912, 95% CI [0.884, 0.938]). Rather than serving as an autonomous accreditation mechanism, the framework provides a transparent, data driven decision-support template for emerging economies to navigate resource constraints and co-design technically rigorous, industry aligned engineering curricula.

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36 countries
  • Canada 51
  • Zimbabwe 20
  • United States 14
  • South Africa 13
  • United Kingdom 7
  • Cameroon 6
  • France 5
  • Mexico 4
  • Australia 3
  • Viet Nam 3

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Author Biographies

  • Piwai Chikasha, University of South Africa

    Dr. Piwai N. Chikasha holds a PhD in Systems Engineering from the University of South Africa and has an academic background in Aeronautical Engineering. He serves as an academic consultant with a strong track record in aerospace engineering curriculum development and optimization. His primary research interests focus on engineering curriculum optimization, atomic curriculum mapping, and adaptive pedagogical frameworks.

  • Kemlall Ramdass, University of South Africa

    Prof. Kemlall Ramdass is a Professor in the Department of Industrial Engineering at the University of South Africa (UNISA). He holds a PhD in Industrial Engineering and possesses extensive academic and professional experience spanning operations management, quality systems, and organizational design. His main research interests include industrial engineering education, process optimization, systems engineering, and agile curriculum alignment.

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Published

2026-08-27 — Updated on 2026-09-28

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How to Cite

Chikasha, P., & Ramdass, K. (2026). Agile Aerospace Engineering Education: GenAI to Navigate Resource Constraints. Canadian Journal of Artificial Intelligence for Learning and Engineering Innovation, 1(1), 51–72. https://doi.org/10.65269/qcx2b691 (Original work published 2026)

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