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Despite the central role that artificial intelligence (AI) plays in global education, its impact on Africa remains underexplored. This chapter examines the perspectives of experts in African educational technology on the impact of AI on equitable education in the coming decade. Using qualitative interviews with 11 Associates and Professors across six countries – Nigeria, South Africa, Morocco, Egypt, Ethiopia, and Kenya – the study highlights African viewpoints that are often overlooked in global discussions. Using a blended approach that utilizes the Technology Acceptance Model, Equity Theory, Cultural-Historical Activity Theory, and Digital Divide Theory to inform an integrated approach to the problem, the experts’ responses were thematically analyzed. Five major themes were identified: (1) the importance of appropriately shielding and protecting the early stages of a child’s learning from the unregulated exposure to AI; (2) the potential of AI to transform pedagogy and achieve resources; (3) the need to align with Africa’s infrastructural, cultural, and linguistic realities; (4) design justice and the ethics of AI technology; and (5) the importance of pedagogy and policy in AI utilization. Protection versus progress, equity versus excellence, and autonomy versus dependence are paradoxes that define the African educational context of AI. The chapter contributes to global debates on AI in education by focusing on Africa while underscoring the importance of equity-oriented approaches. It presents actionable advice to policymakers, teachers, and technology experts on culturally appropriate and sustainable AI applications in education throughout Africa.
Educational Innovation and Technology, University of South Africa, Pretoria, South Africa
*Address all correspondence to: damola.olugbade@tech-u.edu.ng
1. Introduction
Artificial intelligence (AI) has changed the way technology works all over the world, and the changes it brings could also be used in our schools. AI has made the world a bigger place. It can be used for tutoring, adaptive and automated tests, and chatbots [1–3]. AI has the potential to transform the education industry in the same way it has revolutionized other fields, making things more personalized, efficient, and accessible to everyone. The use of AI in any organization is like an undercurrent that changes based on the organization’s social, cultural, and economic background. In Africa, where AI is still new, the lack of access to teachers and infrastructure makes its use promising but also risky. AI is being used more and more quickly, which could change the region in many ways, some of which could be good and others bad. The education system in Africa has had to deal with a lot of problems, and even though things are getting better, they are still far from ideal.
UNESCO informs people that Sub-Saharan Africa has the highest level of exclusion in education among all the world’s regions. More than one in five children between the ages of 6 and 11 do not attend school, and the rates of completing primary and secondary school are much lower than the world averages (UNESCO, 2023). The continent will need 17 million new teachers by 2030 to achieve universal primary and secondary education, which makes the situation even more challenging. Additionally, the “digital divide” is exacerbated by issues with infrastructure, such as frequent power outages, slow internet access, and a lack of digital tools [4, 5]. In this context, AI is both beneficial and problematic. It can provide resources that democratize learning and education, support teachers in various African contexts, and enhance personalized instruction [6, 7]. However, the uneven or poorly planned use of AI could worsen inequalities, hinder online accessibility, and create new forms of digital exclusion [8, 9]. The distorted global context in AI education research underscores the necessity of Africa’s involvement in AI. Unlike the Global North, Africa lacks comprehensive discourses and studies on AI in education and research conducted by educators [10, 11]. This lack of information perpetuates Western narratives that overlook the diversity of cultures, languages, and infrastructure across continents [6, 12]. This chapter addresses the inequity gap, focusing on African perspectives, while adhering to its stated objectives of being inclusive, contextually appropriate, and culturally relevant to the application of AI in education.
The abundance of emerging AI technologies in education and the necessity for long-term planning [13, 14] elucidate the deliberate 10-year timeframe established for this study. Thinking about the next 10 years instead of the last one helps figure out what needs to be done in African countries. This chapter examines qualitative data obtained from 11 educational technology specialists. They all work as either Associate or Full Professors and live in six African countries: Nigeria, South Africa, Morocco, Egypt, Ethiopia, and Kenya. Their responses instilled a prudent optimism regarding the role of AI in promoting equitable learning environments, highlighting both significant potential and grave threats. This chapter, along with the deficiencies in theory and literature, highlights the distinctiveness of AI in education within the African context. The remainder of this chapter is organized as follows. The following section delineates the theoretical frameworks that will inform the study. After that, the research focus is clearly stated, the gaps in current scholarship are pointed out, and the research goals are laid out. The methodology section discusses the qualitative case study approach in detail, followed by the results and their implications. The chapter concludes with reflections on the limitations, suggestions for future research, and policy recommendations for making AI-driven education in Africa more equitable.
This study utilizes a multi-theoretical approach, as seen in Figure 1, to analyze the views of African experts on the role of AI in education, focusing on the Technology Acceptance Model (TAM), Equity Theory in Education, Cultural–Historical Activity Theory (CHAT), and Digital Divide Theory. The TAM has been used to explain the adoption of technology since the 1980s and was first put forth by Davis (1989) regarding the adoption of a technology on the basis of its usefulness and ease of utilization. Davis’s work has been built upon in education in numerous contexts and, in particular, to analyze how educators and students accept AI and other technology [15, 16]. However, to understand Africa’s adoption of AI, considering infrastructural deficits, cultural values, and inequity circumstances, the TAM model by itself would not be adequate.
Figure 1.
Integrated theoretical framework combining the Technology Acceptance Model, Equity Theory in Education, Cultural–Historical Activity Theory, and Digital Divide Theory.
Equity Theory in Education points to the necessity of fairness regarding access and resources to achieve outcomes and stipulates that technology should not only enhance efficiency but also eliminate inequities [7, 8]. In Africa, the question of equity becomes how AI tools can be made accessible to marginalized learners, to those in rural and poorly-staffed areas, and to the diverse cultural and linguistic contexts [6]. C. O. Rogers and Avgerou’s Digital Divide Theory focuses on the disparity in the availability of and access to digital tools, the level of digital literacy, and the support infrastructure available [4, 5]. In the context of African education, the digital divide is defined as a disparity in access to a range of communication devices motivated by the need to overcome barriers in connectivity, affordability, and region-specific content. The antiracist precepts of the decolonial AI movement awaken the necessity to indigenize and contextualize CHAT by asserting that the frameworks are West-centric, as formalized in [12, 17], and throughout the rest of African scholarship. In overcoming the West-centric bias, one seeks to emphasize the relevance of Ubuntu philosophy, the oral tradition of learning, and communally held knowledge as quintessential to conceptualizing and researching AI in Africa. These frameworks are synthesized in this research to construct a composite analytical lens. The adoption of AI in education in Africa is to be understood within the phenomenology of its perceived value (TAM), equity and inclusion (Equity Theory), responsiveness to culture and context (CHAT), and infrastructure and access to the internet (Digital Divide Theory). This hybrid model serves as the basis not only for analyzing expert views but also as a guide for interpreting the derived insights from the analysis as well.
This chapter investigates the central research question: How do African educational technology experts envision the role of AI in creating equitable learning environments over the next decade? By centering the voices of African experts, this study makes a unique contribution to global discourse, challenging the dominance of Global North narratives and highlighting context-specific challenges and solutions. Its significance lies in amplifying African perspectives for policy, practice, and innovation, with practical implications for ministries of education, higher education institutions, and technology developers.
3.1 Research gap and rationale
Publications regarding AI and education show a rapid expansion over the course of the last 10 years [10, 32], yet the focus of the material is still concentrated in the Global North, with the Global South, and specifically Africa, being the focus of minimal publications, despite increasing policy focus [1, 10, 18]. Literature reviews indicate a near absence of policy-driven, Africa-focused, empirical AI research [11, 19]. When African perspectives in research do exist, they tend to focus on institutions or countries with widened gaps in regional comparative explanations [5, 20].
Equity gaps in education, stemming from the deployment of AI, have not been systematically addressed in existing research. For instance, the role of educators, the learning journeys of students, and the infrastructure within institutions in the next decade have not been thoroughly described [14]. Policies that only focus on incorporating new educational technologies in the short run will not equip policymakers to forecast shifts. Many publications do discuss the reinforcing inequalities perpetuated by inequitable AI deployment [7, 8]; however, research that focuses on the issue of inequity is scarce. In the African context, equity is not a secondary consideration but rather a foundational principle, given the continent’s stark disparities in access and outcomes.
This study addresses these gaps by adopting a qualitative approach, privileging the insights of experienced African educational technology experts. The choice of qualitative methodology reflects the need for nuanced, context-sensitive analysis that quantitative surveys cannot capture [21, 22]. Expert perspectives are especially valuable, as senior scholars bring long-standing experience, regional knowledge, and comparative insights across different educational systems. The inclusion of participants from six African countries ensures geographic and cultural diversity, strengthening the study’s ability to capture both shared challenges and country-specific variations. The 10-year focus provides a forward-looking orientation, situating African perspectives within global debates about the future of AI in education.
3.2 Research objectives
This chapter explores African educational technology experts’ perspectives on AI’s future role in creating equitable learning environments over the next decade. Here are the specific objectives:
To examine experts’ views on appropriate AI integration across different educational levels.
To identify anticipated challenges and opportunities for AI in African educational contexts.
To understand equity considerations in AI adoption for education.
To explore recommendations for ethical and culturally responsive AI implementation.
To project the timeline and milestones for AI transformation in African education.
This study adopted a qualitative case study design set within an interpretive paradigm. The choice of qualitative technique is justified by the study’s focus on examining meanings, viewpoints, and experiences rather than verifying hypotheses. A case study design is particularly ideal for evaluating AI in African education, as it enables in-depth research into contextual dynamics and expert opinions [23].
4.2 Research setting, context, and participants
The research setting was the African higher education and educational technology scene. Participants were purposively selected based on their competence in educational technology, academic position (Associate or Full Professor), and regional representation. In total, 11 participants contributed, coming from Nigeria (4), South Africa (2), Morocco (2), Egypt (1), Ethiopia (1), and Kenya (1). This distribution ensured coverage of West, East, North, Southern, and Northeastern Africa. All participants had extensive experience in digital pedagogy and educational research. To safeguard anonymity, pseudonyms and country identifiers were used when presenting quotations.
4.3 Data collection methods
Data were obtained through semi-structured interviews designed to elicit participants’ perspectives on pedagogy, inclusivity, engagement, and support. The interview guide was informed by the theoretical framework and piloted with two colleagues before being refined. Interviews lasted between 60 and 90 minutes and were conducted online due to geographical dispersion. Data saturation was achieved after the twelfth interview, as no new themes emerged.
4.4 Data coding and analysis
Interviews were transcribed verbatim and analyzed using thematic analysis (Braun and Clarke, 2006). Coding involved three phases: initial coding to uncover emerging concepts, focused coding to refine categories, and theoretical coding to relate themes to the study’s framework. NVivo software supported data organization. Inter-rater reliability was verified through double coding of three transcripts by independent researchers, with inconsistencies resolved through discussion. Member checking was accomplished by sharing summaries of findings with participants for validation. Triangulation was achieved by integrating participant opinions with existing literature.
4.5 Ethical considerations
The study adheres to ethical norms, gaining Institutional Review Board approval prior to data collection. Participants supplied informed consent and were assured of anonymity and confidentiality. Data were stored securely on password-protected devices and cloud storage, in compliance with international data protection requirements. Cultural sensitivity was prioritized by allowing participants to express themselves in English or French, with clarifications provided as needed.
The study of semi-structured interviews with 11 African educational technology specialists identified five significant themes that illuminate the complex landscape of AI’s future role in education across the continent. These themes highlight both the transformative potential and the substantial challenges concerning AI inclusion in African educational contexts.
5.1 Theme 1: Age-appropriate AI integration – the developmental imperative
A surprising consensus emerged regarding the vital need for age-appropriate AI applications, particularly in early childhood education. Participants expressed serious concern about AI’s impact on cognitive development in young learners.
Professor A (Nigeria) emphasized: “AI might be highly delicate for the development of a child’s brain. The employment of AI in the basic sector of education should be outlawed entirely.” This viewpoint was reflected across multiple interviews, with participants underlining the irreplaceable value of human interaction in foundational learning years.
Professor B (Kenya) elaborated: “Children ages 5–12 need to develop critical thinking through effort, through making mistakes, through human supervision. AI at this level could develop intellectual dependency that hinders natural cognitive growth.”
However, interviewees distinguished between primary and higher education contexts. Professor C (South Africa) noted: “While we must protect young minds, AI can be revolutionary for university students who have already developed core thinking skills. The challenge is knowing when and how to introduce these technologies.”
5.2 Theme 2: The great educational transformation – AI’s revolutionary potential
Despite reservations about early implementation, participants unanimously agreed that AI would significantly transform education within the decade. The scope of this shift was recognized as unprecedented.
Professor D (Morocco) predicted: “The use of AI in teaching will advance enormously. In the next 10 years, robots driven by AI would take over most parts of schooling.” This transition was viewed as both inevitable and necessary for educational growth.
Professor E (Ethiopia) commented on this vision: “We are witnessing the death of traditional classroom paradigms. AI tutors will provide personalized learning paths that no human teacher could equal in terms of individual attention and adaptable information delivery.”
Professor F (Egypt) characterized the material transformation: “Printed materials like textbooks, notes, and books would be taken over by AI-powered interactive learning platforms. Students will have conversations with their textbooks, ask questions in real-time, and receive explanations adapted to their learning style.”
5.3 Theme 3: The African context – bridging digital divides and cultural relevance
Participants underlined that AI’s effectiveness in African education would depend greatly on overcoming contextual issues and cultural considerations peculiar to the continent.
Professor G (Nigeria) highlighted infrastructural concerns: “The promise of AI is enormous, but we cannot overlook that many of our schools lack basic energy. We need AI solutions that work offline, that can function in low-resource contexts.”
Professor H (South Africa) underlined cultural adaptation: “AI systems trained on Western datasets will prolong educational colonialism. We need AI that understands Ubuntu ideology, that recognizes indigenous knowledge systems, that speaks to African ways of knowing.”
Professor I (Morocco) emphasized linguistic diversity: “Africa has over 2,000 languages. AI must be multilingual and culturally sensitive. A one-size-fits-all approach will merely increase current educational inequalities.”
5.4 Theme 4: Ethical imperatives and human-centered design
The ethical dimensions of AI in education have emerged as a significant concern, with participants urging for human-centered approaches that preserve the essence of education as a fundamentally human effort.
Professor J (Nigeria) warned: “We risk developing a generation that cannot think without algorithmic aid. Education must remain fundamentally about growing human capacity, not replacing it with artificial intelligence.”
Professor K (South Africa) addressed equity concerns: “AI could either be the great equalizer or the great divider. If only wealthy schools had access to breakthrough AI tools, we would create an educational apartheid more deadly than anything we’ve seen before.”
Professor L (Kenya) argued for balanced integration: “The goal is not to replace instructors but to augment existing talents. AI should handle administrative responsibilities, provide statistical insights, and offer personalized support, freeing teachers to focus on mentorship, creativity, and emotional growth.”
5.5 Theme 5: Capacity building and teacher transformation
Participants selected teacher preparation and support as the linchpin for successful AI integration in African educational institutions.
Professor M (Egypt) stated: “The success of AI in education will be determined not by the sophistication of the technology, but by how well we prepare our educators to work alongside these systems.”
Professor N (Nigeria) described the shift needed: “Teachers must grow from information deliverers to learning facilitators, from content specialists to AI literacy coaches. This necessitates huge investment in professional development.”
Professor O (Ethiopia) underscored the urgency: “We have possibly five years to retrain our teaching workforce before AI systems become so advanced that unprepared teachers become redundant. The time for gradual change has passed.”
To conclude the results section, the successful integration of AI tools in education on the African continent hinges on an almost immediate and drastic change in the entire teaching profession. The high-tech gizmos are entirely secondary to the foremost challenge, which is preparing teachers to step out of their age-old role as pedantic lecturers and content experts to become facilitators of learning and teachers of AI. This shift, particularly in the context of Africa, is going to require a tremendous and immediate allocation of funds for professional development, as the time frame for upskilling the present population is closing in. If Africa is to succeed, there is no doubt that teachers, without the urgently needed training, risk extinction in the coming decades. The change needed is therefore not a question of whether change is needed, but rather that change is absolutely essential.
The views of African educational technologists highlight both the opportunities and threats of AI in education on the African continent. The results relate to the universal conversations on AI in education, but they also highlight African perspectives on the use of AI in education. Each of the ideas that emerged from the research aligns with the debates in the literature and is, however, uniquely refracted through the realities of Africa in equity, infrastructure, culture, and the readiness of teachers.
6.1 Age-appropriate AI integration: The developmental imperative
The consensus among participants, that AI should be tightly regulated in early childhood education, matches growing concerns in global research about the cognitive and socio-emotional repercussions of early exposure to digital technology [9, 24]. The concern stated by Nigerian and Kenyan experts, that AI use in children aged 5–12 promotes intellectual dependency, mirrors arguments that young learners gain the most from bodily engagement, play, and human mentorship [22]. At the same time, the distinction made between primary and higher education environments aligns with research demonstrating that AI is most effective when learners have already developed critical thinking foundations [25, 30]. This study underscores the Protection–Progress Paradox: safeguarding cognitive development while exploiting AI’s transformative potential at later stages.
6.2 The great educational transformation: AI’s revolutionary potential
Experts regularly forecast that AI will alter African education over the next decade, reflecting global estimates that foresee AI-driven personalization and adaptive learning as important disruptors of traditional pedagogical approaches [3, 13, 14]. The vision stated by Moroccan and Egyptian participants – AI tutors, interactive systems, and the loss of printed materials – resonates with the remark by Chiu [26] and emerging work on immersive technologies in developing contexts [33]. That generative AI tools like ChatGPT and Midjourney are altering teaching and learning practices. While such projections may appear techno-solutionist, African experts stressed AI’s inevitability and urgency for addressing entrenched educational gaps [29]. This aligns with the study by Maina and Kuria [11], who claim that AI could act as a catalyst for systemic transformation in African higher education if judiciously handled.
6.3 The African context: Bridging digital divides and ensuring cultural relevance
Perhaps the most distinctive contribution of African specialists resides in their insistence on contextual and cultural adaptation. Concerns about infrastructure, multilingualism, and indigenous knowledge systems highlight the need for AI that is both accessible and culturally responsive. Scholars such as Olugbade [6] and Olayinka et al. [12] also advise against the uncritical acceptance of Western-trained AI models that fail to reflect African epistemologies. The attention on Ubuntu-informed AI systems underscores CHAT’s emphasis on sociocultural mediation and supports proposals for inclusive design [17]. Moreover, participants’ emphasis on offline, low-resource AI solutions speaks directly to Digital Divide Theory, underlining that, without infrastructural inclusivity, AI risks reproducing educational colonialism and inequality [8, 31].
6.4 Ethical imperatives and human-centered design
Ethical issues appeared as a recurring topic, with experts warning against algorithmic reliance, inequitable access, and systemic risks emerging from complex AI ecosystems [7, 8, 34]. The potential of replacing rather than enhancing teachers. This reflects global critiques that warn against “techno-solutionism” in education, as AI is positioned as a silver bullet without addressing underlying inequities [7, 8]. The urge for human-centered AI design echoes Equity Theory in practice: AI must support, not undermine, the fundamentally human process of teaching and learning. This resonates with advocacy by Viberg et al. [7] for AI-powered decision-support systems that improve equity and inclusiveness. African experts’ emphasis on blending automation with mentorship and creativity further underlines the significance of reinventing teaching roles in an AI-driven landscape [27].
6.5 Capacity building and teacher transformation
Experts highlighted teacher preparedness as the key to successful AI adoption [28]. Their demands for rapid retraining correlate with findings from the studies by Hlongwane et al. [5] and Opesemowo and Adekomaya [20], who note that without teacher readiness, AI integration risks halting. The envisioned transformation of instructors from “information deliverers” to “AI literacy coaches” accords with global literature on emerging teacher roles in AI-enhanced classrooms [9, 28]. However, African specialists notably underline the importance of urgent, large-scale capacity creation, warning of obsolescence within five years if reforms are postponed. This urgency underscores the Equity–Excellence Paradox: While AI can democratize access to personalized learning, unequal teacher preparation could create wider divides between well-resourced and under-resourced schools.
6.6 Integration with theoretical frameworks
Taken together, the findings extend the TAM by demonstrating that perceived usefulness and ease of use are inseparable from equality, cultural responsiveness, and infrastructural feasibility in African contexts. Equity Theory is strengthened by the experts’ insistence that AI should function as an equalizer, not a divider, while CHAT illuminates the significance of anchoring AI systems in indigenous knowledge and Ubuntu values. Finally, the Digital Divide Theory is vividly illustrated by worries regarding offline capabilities, pricing, and linguistic variety. These theories, when synthesized, provide a robust lens for driving AI deployment in Africa.
6.7 Study limitations
While the study provides interesting insights, certain limitations must be acknowledged. First, the sample size of 11 individuals, though sufficient for topic saturation, restricts generalizability across Africa’s diverse educational systems. Second, participants were senior academics, which prioritizes expert opinions but excludes the voices of frontline teachers, students, and politicians, whose experiences may differ. Third, the reliance on self-reported data introduces the possibility of bias, particularly in forecasting the next decade.
Fourth, language hurdles were a constraint, as interviews were conducted predominantly in English and French, thus restricting nuance for those more versed in Indigenous languages. Fifth, technological restrictions hindered several online interviews due to unstable internet connections, reflecting the fundamental infrastructural issues under debate. Finally, the study provides a temporal snapshot rather than longitudinal shifts, making its predictions uncertain. These limitations, however, do not negate the study’s contributions but rather suggest opportunities for future investigation.
6.8 Future directions
Building on these findings, various prospective study possibilities arise. Longitudinal studies are needed to observe how experts’ forecasts unfold over the next decade, providing empirical proof of AI’s actual impacts on African education. Quantitative studies with larger, more representative samples could complement qualitative insights, offering generalizable data on attitudes, adoption rates, and learning outcomes.
Implementation studies should focus on unique African contexts, testing AI solutions in rural, multilingual, and low-resource environments to determine practicality and equity implications. Cross-cultural comparative studies between African and Global North contexts could reveal how cultural frameworks impact AI adoption.
Expanding the study beyond specialists to involve teachers, kids, and parents would deepen awareness of AI’s everyday consequences and equity concerns. Policy analysis is also vital, particularly investigating how African governments and regional agencies interpret AI within national education strategies [11]. Finally, collaborations between African scholars and technology developers should prioritize culturally sensitive AI design, ensuring African languages, values, and pedagogies inform future discoveries.
This chapter has investigated African educational technology experts’ perspectives on the future of AI in education over the next decade, with a special focus on equity. Through interviews with 11 experts across six nations, the study has exposed both opportunities and challenges. Five themes emerged: the necessity for age-appropriate AI integration, the inevitability of educational revolution, the centrality of African contextual and cultural realities, the importance of ethical and human-centered methods, and the urgency of teacher capacity building. These findings reflect broader global discussions while foregrounding African-specific factors that are too often absent in international literature.
Theoretically, the study extends the TAM by incorporating equity, culture, and infrastructural elements. It also reinforces the relevance of Equity Theory, CHAT, and Digital Divide Theory in understanding AI adoption in African education. Practically, the findings underline the need for urgent investment in teacher professional development, culturally relevant AI systems, and infrastructural equity to prevent widening disparities. For policymakers, the study underscores the necessity of inclusive methods that integrate indigenous knowledge, multilingualism, and offline capabilities into AI implementation.
Ultimately, the future of AI in African education will be determined not only by technological competence but by how equally and responsibly it is implemented. If led by human-centered, culturally responsive, and equity-driven principles, AI can democratize learning and help Africa’s educational reform. Conversely, if deployed without attention to African conditions, AI could exacerbate current gaps and create new forms of exclusion. The next decade is thus a vital opportunity for influencing AI’s destiny in Africa. Stakeholders, including governments, educators, technologists, and researchers, must act with haste and foresight to ensure that AI serves as a tool for empowerment rather than division.
References
1.HolmesW, TuomiI. State of the art and practice in AI in education. European Journal of Education. 2022;57:542–570. DOI: 10.1111/ejed.12533
2.KamalovF, CalongeD, GurribI. New era of artificial intelligence in education: Towards a sustainable multifaceted revolution. Sustainability. 2023;15:12451. DOI: 10.3390/su151612451
3.AliA. AI-powered e-learning: Innovations, challenges, and the future of education. International Journal of Information and Education Technology. 2025;15:882–890. DOI: 10.18178/ijiet.2025.15.5.2294
4.ChisomO, UnachukwuC, OsawaruB. Review of AI in education: Transforming learning environments in Africa. International Journal of Applied Research in Social Sciences. 2024. DOI: 10.51594/ijarss.v5i10.725
5.HlongwaneJ, ShavaG, MangenaA, MuzariT. Towards the integration of artificial intelligence in higher education, challenges and opportunities: The African context, a case of Zimbabwe. International Journal of Research and Innovation in Social Science. 2024;VIII:417–435. DOI: 10.47772/ijriss.2024.803028s
6.OlugbadeD. A systematic review of the role of AI-enabled chatbots in modern education: Benefits, risks, and implementation complexity. In GarciaMB, Rosak-SzyrockaJ, BozkurtA, editors Pitfalls of AI Integration in Education: Skill Obsolescence, Misuse, and Bias. IGI Global Scientific Publishing; 2025. DOI: 10.4018/979-8-3373-0122-8.ch018
7.VibergO, KizilcecR, WiseA, JivetI, NixonN. Advancing equity and inclusion in educational practices with AI -powered educational decision support systems (AI – EDSS). British Journal of Educational Technology. 2024;55:1974–1981. DOI: 10.1111/bjet.13507
8.BulathwelaS, Pérez-OrtizM, HollowayC, CukurovaM, Shawe-TaylorJ. Artificial intelligence alone will not democratise education: On educational inequality, techno-solutionism and inclusive tools. Sustainability. 2024;16:781. DOI: 10.3390/su16020781
9.EdwardsBI, OlugbadeD, OjoOA. Facilitating cognitive load management and improved learning outcomes and attitudes in middle school technology and vocational education through AI chatbot. Journal of Technical Education and Training. 2024;16(3):114–131. DOI: 10.30880/jtet.2024.16.03.009
10.YuJ, ChauhanD, IqbalR, YeohE. Mapping academic perspectives on AI in education: Trends, challenges, and sentiments in educational research (2018–2024). Educational Technology Research and Development : ETR & D. 2024;72:973–996. DOI: 10.1007/s11423-024-10425-2
11.MainaA, KuriaJ (2024). Building an AI future: Research and policy directions for Africa’s higher education. 2024 IST-Africa Conference (IST-Africa), 01–09. DOI: 10.23919/IST-Africa63983.2024.10569692.
12.OlayinkaT, WaghidZ, MatakaT, AdegokeO. Demystifying Lesotho, Rwandan and Nigerian educators’ viewpoints on smart technologies supporting AI in higher education. Education and Information Technologies. 2024;29:24285–24307. DOI: 10.1007/s10639-024-12820-x
13.SandersD, MukhariS. Lecturers’ perceptions of the influence of AI on a blended learning approach in a South African higher education institution. Discover Education. 2024;3. DOI: 10.1007/s44217-024-00235-2
14.ChiuT. Future research recommendations for transforming higher education with generative AI. Computers and Education: Artificial Intelligence. 2024;6:100197. DOI: 10.1016/j.caeai.2023.100197
15.XuW, FanO. A systematic review of AI role in the educational system based on a proposed conceptual framework. Education and Information Technologies. 2021;27:4195–4223. DOI: 10.1007/s10639-021-10774-y
16.AlmuhannaM. Teachers’ perspectives of integrating AI-powered technologies in K-12 education for creating customized learning materials and resources. Education and Information Technologies. 2024;30:10343–10371. DOI: 10.1007/s10639-024-13257-y
17.ShaoZ, ZhaoR, YuanS, DingM, WangY. Tracing the evolution of AI in the past decade and forecasting the emerging trends. Expert Systems with Applications. 2022;209:118221. DOI: 10.1016/j.eswa.2022.118221
18.ZhangK, AslanA. AI technologies for education: Recent research & future directions. Computers and Education: Artificial Intelligence. 2021;2:100025. DOI: 10.1016/J.CAEAI.2021.100025
19.MustafaM, TliliA, LampropoulosG, HuangR, JandrićP, ZhaoJ, SalhaS, XuL, PandaS, López-PernasK, López-PernasS, SaqrM. A systematic review of literature reviews on artificial intelligence in education (AIED): A roadmap to a future research agenda. Smart Learning Environments. 2024;11:59. DOI: 10.1186/s40561-024-00350-5
20.OpesemowoO, AdekomayaV. Harnessing artificial intelligence for advancing sustainable development goals in South Africa’s higher education system: A qualitative study. International Journal of Learning, Teaching and Educational Research. 2024;23:67–86. DOI: 10.26803/ijlter.23.3.4
21.FawazM, El-MaltiW, AlreshidiS, KavuranE. Exploring health sciences students’ perspectives on using generative artificial intelligence in higher education: A qualitative study. Nursing & Health Sciences. 2025;27(1):e70030. DOI: 10.1111/nhs.70030
22.ToyokawaY, HorikoshiI, MajumdarR, OgataH. Challenges and opportunities of AI in inclusive education: A case study of data-enhanced active reading in Japan. Smart Learning Environments. 2023;10:1–19. DOI: 10.1186/s40561-023-00286-2
23.BraunV, ClarkeV. Using thematic analysis in psychology. Qualitative Research in Psychology. 2006;3(2):77–101. DOI: 10.1191/1478088706qp063oa
24.Salas-PilcoS. The impact of AI and robotics on physical, social-emotional and intellectual learning outcomes: An integrated analytical framework. British Journal of Educational Technology. 2020;51:1808–1825. DOI: 10.1111/bjet.12984
25.YılmazÖ. Personalised learning and artificial intelligence in science education: Current state and future perspectives. Educational Technology Quarterly. 2024;2024:255–274. DOI: 10.55056/etq.744
26.ChiuT. The impact of Generative AI (GenAI) on practices, policies and research direction in education: A case of ChatGPT and Midjourney. Interactive Learning Environments. 2023;32:6187–6203. DOI: 10.1080/10494820.2023.2253861
27.KnoppM, WarmE, WeberD, KelleherM, KinnearB, SchumacherD, SantenS, MendoncaE, TurnerL. AI-enabled medical education: Threads of change, promising futures, and risky realities across four potential future worlds. JMIR Medical Education. 2023;9:e50373. DOI: 10.2196/50373
28.AlotaibiN. The impact of AI and LMS integration on the future of higher education: Opportunities, challenges, and strategies for transformation. Sustainability. 2024;16:10357. DOI: 10.3390/su162310357
29.AdelanaOP, AyanwaleMA, AdeobaMI, OyeniranDO, MatsieN, OlugbadeD (2024). Machine learning algorithm for predicting pre-service teachers’Readiness to Use Brain-Computer Interfaces in Inclusive Classrooms. 2024 IEEE 5th International Conference on Electro-Computing Technologies for Humanity (NIGERCON), Ado Ekiti, Nigeria, pp. 1–10, DOI: 10.1109/NIGERCON62786.2024.10927281
30.LimW, GunasekaraA, PallantJ, PallantJ, PechenkinaE. Generative AI and the future of education: Ragnarök or reformation? A paradoxical perspective from management educators. The International Journal of Management Education. 2023;21:100790. DOI: 10.1016/j.ijme.2023.100790
31.OlugbadeD, OyelereSS, AgboFJ. Enhancing junior secondary students’ learning outcomes in basic science and technology through PhET: A study in Nigeria. In Education and Information Technologies. Springer; 2024. DOI: 10.1007/s10639-023-12391-3
32.OlugbadeD. Democratizing education in rural Nigeria through AI and mobile technologies as a transformative pathway to inclusive learning. In: SanmugamM, EdwardsB, BarkhayaNM, KhlaifZ, editors Fostering Inclusive Education with AI and Emerging Technologies. IGI Global; 2025. p. 233–250. DOI: 10.4018/979-8-3693-7255-5.ch010
33.PaekS, KimN. Analysis of worldwide research trends on the impact of artificial intelligence in education. Sustainability. 2021;13:7941. DOI: 10.3390/SU13147941
34.OlugbadeD, OjoOA. Immersion technologies: Going beyond textbooks to improve learning in developing nations. In EdwardsBI, TankoBL, KlufallahM, AbuhassnaH, ChineduCC editors. Reimagining Transformative Educational Spaces. Lecture Notes in Educational Technology. Singapore: Springer; 2024. DOI: 10.1007/978-981-97-8752-4_16
Written By
Damola Olugbade
Submitted: 20 September 2025Reviewed: 08 October 2025Published: 27 February 2026