This scoping review examines how Generative AI (GenAI) can support higher-order thinking skills (HOTS) in programming education across African higher education institutions. Guided by Arksey and O’Malley’s scoping review framework and PRISMA-ScR principles, the review synthesised 11 studies published between 2020 and 2025. The findings show that GenAI tools, including ChatGPT, GitHub Copilot, Microsoft Copilot, Google Gemini, Codey, Kwame, AutoGrad, SuaCode, and Brilla AI, can support problem-solving, critical thinking, creativity, abstraction, programming logic, computational thinking, and metacognitive reflection. These benefits were most evident when GenAI was embedded in structured pedagogical designs such as project-based learning, problem-based learning, guided discovery, constructivist learning, prompt engineering, reflective learning, collaborative learning, and assessment-redesign approaches. In evidence from the synthesised studies, GenAI functioned most effectively as a learning scaffold when students were required to question, test, debug, compare, justify and reflect on AI-generated outputs. Conversely, weakly structured use risked surface-level engagement, over-reliance, plagiarism, and limited conceptual understanding. The review also identified contextual barriers to adoption, including unreliable internet access, device constraints, subscription costs, uneven faculty readiness, limited institutional policies, academic integrity concerns, and assessment validity challenges. Culturally and linguistically responsive GenAI integration emerged as a critical need, particularly in multilingual African learning environments where Western-centric datasets, examples, and pedagogical assumptions may not fully reflect local realities. This review suggests that GenAI has significant potential to enhance HOTS in African programming education, but sustainable and equitable integration requires AI-resilient assessment, faculty professional development, institutional policy guidance, locally relevant tools, and further longitudinal, experimental, classroom-based, and faculty-centred research.
A. Kadams, S. Oyelere, C. B. Omeh· Proceedings of the 2026 ACM...· 0 citations
The widespread availability of generative tools has weakened a long-standing assumption in computing education: that the production of working code can serve as a proxy for student competence. In resource-constrained settings, these tensions are compounded by intermittent power, high data costs, and emergent institutional governance. We report a two-site qualitative study of Nigerian computing departments (n = 20), drawing on semi-structured interviews with students and academic staff and analysing the corpus through thematic analysis to characterise assessment practice under policy-light conditions. Our findings describe a persistent detection trap, where staff rely on inconclusive software or subjective judgement, and institutional silence, where expectations for acceptable use are unevenly specified and applied. We contribute the Scaffolded AI-Verification Framework (SAVF), presented as a traceable design pattern catalogue of handset-first, low-data feasible teaching moves derived from these stakeholder accounts. SAVF comprises (i) permitted-help statements with disclosure, (ii) process-evidence bundles that foreground explanation and testing, and (iii) course-anchored prompts that require adaptation to local materials and constraints. We provide three pattern specifications, a traceability table linking themes to requirements and patterns, and adoption guidance for low-bandwidth implementation, positioning SAVF as a stakeholder-informed design contribution with a testable evaluation plan for future in-situ study rather than as an evaluated intervention.
Kehinde D. Aruleba, Kike Ladipo, I. Sanusi et al.· Proceedings of the 2026 ACM...· 0 citations