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Purpose

This study explores the integration of AI literacy within culturally responsive and interdisciplinary education frameworks, emphasizing its relevance for Generation Z. It aims to identify key components, challenges and implications of embedding ethical, technical and cultural dimensions into AI education.

Design/methodology/approach

The study employed a qualitative content analysis technique. In order to identify and select information-rich cases, a semi-structured interview was conducted with 20 experts in Iran's public and private universities based on the criterion-dependent targeted sampling method. Four credibility, transferability, dependability and conformability criteria were used to increase the accuracy of qualitative.

Findings

The study identified essential AI literacy competencies for Generation Z in culturally diverse digital contexts, including ethical reasoning, data awareness and critical engagement with algorithms. It also highlighted key facilitators like community involvement and multilingual resources and barriers such as limited teacher training and rigid curricula. Culturally responsive methods, including storytelling and project-based learning, emerged as effective strategies for equitable AI education.

Originality/value

This work contributes a holistic perspective on AI literacy that bridges technical knowledge with cultural and ethical awareness. It highlights the urgent need for a unified framework, expanded research in underrepresented contexts and investment in teacher capacity. By aligning AI education with students' lived experiences and community values, the study offers a transformative vision for preparing Generation Z to navigate and shape the future of technology with empathy, responsibility and innovation.

Gen Z (born between 1995 and 2012) exhibits distinct attributes shaped by information technologies and diverse cultural contexts. Understanding these traits is essential for educators seeking to engage this cohort effectively (Shorey, Chan, Rajendran, & Ang, 2021; Park & Kim, 2024); The influx of Gen Z students, alongside rapid advancements in AI, has prompted a critical reevaluation of traditional pedagogical approaches (Chen & Lin, 2024; Kumar & Mamgain, 2023); Bridging the gap between their expectations and institutional offerings requires exploring their perceptions and concerns to foster collaboration and improve learning experiences.

Comparative analyses reveal pronounced differences between Gen Z and earlier generations in educational preferences, learning styles, technology adoption and communication; These disparities arise from distinct historical, economic, social and technological influences (Hernandez de Menendez et al., 2020); Gen Z's pervasive digital access underpins their learning behaviors and highlights the need to address their cultural context (Turner, 2015). They expect AI-enhanced, hands-on, real-world learning that integrates technology and prepares them for contemporary careers.

Generative AI, influenced by socio-political and cultural forces, is reshaping self-directed learning and serving as a catalyst for personalized education, such as in language acquisition (Li, Bonk, Wang, & Kou, 2024). Over the past five years, AI literacy initiatives particularly in K–12 education – have expanded significantly (Goenka, Patnaik, & Pradhan, 2024); Some curricula treat AI literacy as an extension of digital or data literacy (Schüller, 2022); reflecting the converging competencies needed in a data-driven world.

European scholarship advocates for universal AI education, asserting that every citizen requires foundational AI knowledge; UNESCO defines AI as machines capable of human-like perception, learning, reasoning and creativity (Stolpe & Hallström, 2024). With many current workers lacking skills to transition into AI-related roles, integrating AI training into formal education systems has become increasingly urgent (Kong, Cheung, & Tsang, 2024).

Cultivating AI literacy for Generation Z is a societal imperative; As primary users of AI, Gen Z faces a dual reality: while offering transformative potential, AI also introduces risks such as algorithmic bias, privacy erosion and misinformation; Many lack the critical understanding needed to navigate these challenges, leaving them vulnerable to manipulation and reinforcing broader issues like digital inequity and social polarization; A comprehensive AI literacy framework must integrate technical, ethical and cultural dimensions; This includes addressing region-specific needs as seen in contexts like Iran, where technological adoption outpaces curricular adaptation and equipping students to critically engage with AI's societal impacts. Beyond technical skills, emphasis must be placed on fairness, accountability and cross-cultural competence to ensure AI serves diverse global communities; By fostering such multidimensional literacy, we can empower Gen Z to harness AI responsibly, mitigate its risks and lead in an era defined by human–AI collaboration.

The integration of AI into interactive learning ecosystems enables instruction and personalized engagement, empowering educators with intelligent tools and increasing student acceptance of technology (Wu, Zhang, Ma, Yue, & Dong, 2024); Cultivating AI literacy is essential to mitigate potential drawbacks and maximize benefits. While literacy was historically confined to reading and writing in sanctioned contexts (Fransman, 2008), the digital revolution has expanded it into a dynamic construct encompassing visual, media, computer, information and AI literacies (Järnerot & Veelo, 2020; Al-Azri, Alharrasi, & Al-Aufi, 2023; Potter, 2010; Kong, 2014).

A theoretical framework for AI and Gen Z literacy emphasizes digital fluency and socio-ethical awareness. AI literacy involves understanding and using AI technologies responsibly a necessity for digitally native learners (Lee et al., 2024); Long and Magerko (2020) propose an AI literacy model covering tool selection, interaction comprehension and ethical considerations. Chardonnens (2025) highlights how integrating AI with active learning strategies like project-based learning enhances motivation and self-regulation; Stolpe and Hallström (2024) identify three AI literacy paradigms technical, scientific and socio-ethical aligning with Gen Z's demand for personalized, immersive experiences; Together, these frameworks advocate a balanced approach fostering critical thinking and digital agency.

AI literacy thus joins a family of “new” literacies that promote critical awareness and domain-specific competencies, including digital literacy (Nguyen & Habók, 2024), computational literacy (Hachmann, 2024), critical digital literacy (Ilomäki et al., 2023), media literacy (Potter, 2010), information literacy (Tuominen, Savolainen, & Talja, 2005), data literacy (Gould, 2017), visual/auditory literacy (Bodén, 2023) and algorithmic literacy (Ridley & Pavlik-Pots, 2021).

Long and Magerko (2020) define AI literacy as the competency to apply AI tools to solve problems across personal and professional domains. However, integrating AI into education introduces pedagogical and ethical complexities, necessitating educator proficiency in both AI theory and practice (Beege, Hug, & Nerb, 2024). For Generation Z, tech-savviness expands learning beyond traditional settings, where AI literacy simultaneously boosts engagement and critical thinking (Singh, Vasishta, & Singla, 2024; Baskoro, Mariza, & Sutapa, 2023) yet risks encouraging procrastination (Lim & Lee, 2024) and provoking privacy concerns (Jabar, Chiong-Javier, & Pradubmook Sherer, 2024). These insights underscore the imperative for balanced, ethically informed AI adoption in education. Related findings are synthesized in Table 1.

The data were analyzed using reflexive thematic analysis within the qualitative framework established by Braun and Clarke (2006). This involved a six-phase iterative process: familiarizing ourselves with the data, generating initial codes, searching for themes, reviewing themes, defining and naming themes and producing the report.

Participants were selected through criterion-based purposeful sampling to include information-rich cases aligned with the study's objectives. This approach prioritized individuals with direct expertise and experience relevant to the research focus. Sampling continued until theoretical saturation was achieved ensuring a comprehensive exploration of the phenomenon. A referral network of recognized experts was also employed to diversify perspectives, in line with established qualitative practices (Parker, Scott, & Geddes, 2019). The sample consisted of educational specialists, university faculty and curriculum experts who met predefined inclusion criteria, including substantial professional experience, advanced subject-matter knowledge and familiarity with both AI literacy and relevant cultural contexts. All participants held positions at the associate professor level or higher and demonstrated willingness to engage deeply with the research questions. A detailed overview of participant demographics is provided in Table 2.

This study utilized semi-structured interviews, guided by a protocol aligned with research objectives and refined by six educational management experts. Interviews were adapted dynamically to capture detailed responses (Magaldi & Berler, 2018).

Reliability was strengthened through colleague debriefing and member checking, with participants verifying their responses and interpretations. Purposive sampling ensured diverse professional backgrounds, continuing until thematic saturation was reached. Participants also reviewed emergent themes to reconcile discrepancies.

Dependability was ensured via an independent audit of data collection and analysis procedures. Conformability was achieved by maintaining comprehensive documentation, ensuring all findings were traceable to raw data. Transferability was supported through thick descriptions of the research context and participants.

All interviews were transcribed verbatim and analyzed through repeated close readings. Significant statements were inductively coded using MAXQDA software, enabling systematic thematic organization while adhering to qualitative research standards.

The research implementation process was carried out during the years 2024–2025 and the ethical and professional considerations of the research were observed; the objectives of the research were explained to the participants and they participated with satisfaction and awareness of the research process; their information was kept confidential. The ethical guidelines outlined by the American Psychological Association's publication manual and to this study. These guidelines include principles such as confidentiality, data privacy and obtaining written informed consent from the individuals in the sample.

  1. What are the essential AI literacy competencies (and their sub-dimensions) that Generation Z requires navigating culturally diverse digital environments?

  2. What culturally-embedded learning facilitators and inhibitors most significantly impact Generation Z's acquisition of AI literacy skills?

  3. Which culturally-adaptive teaching methodologies most effectively develop AI literacy competencies in Generation Z students from diverse backgrounds?

As presented in Tables 3 to 6, the findings derived from expert interviews highlight key themes including AI literacy competencies, learning facilitators and inhibitors of AI literacy and culturally adaptive teaching practices. These tables display the frequency and percentage of statements associated with each concept, offering a quantitative overview of how often specific ideas were referenced in relation to each open code. As Table 3 shows, AI literacy competencies include Ethical AI Awareness, Critical Digital Discernment, Intercultural AI Communication, Global AI Governance Fluency, Emotional & Social AI Intelligence. Table 4 shows Learning facilitators of AI literacy in the form of nine main components. Table 5 shows the main elements of Learning inhibitors of AI literacy in the form of five main components including Economic Constraints, Outdated Educational System, Brain Drain & Talent Flight, Sociocultural Barriers and Surveillance Concerns. In this regard, Table 6 shows Culturally-adaptive teaching with eight main components.

Based on Table 3, AI literacy competencies are composed of five main components, with Ethical AI Awareness being the most prominent at 37%, followed by Intercultural AI Communication (24%), Critical Digital Discernment (23%), Global AI Governance Fluency (9%) and Emotional & Social AI Intelligence (7%). Each component encompasses specific subcomponents focused on the cultural, ethical and critical application of AI, such as analyzing AI bias, using AI for cross-cultural dialogue, understanding global AI regulations and navigating AI's social and emotional impacts across different cultural contexts.

Table 4 details the nine principal facilitators of AI literacy led by Internet Access & Infrastructure (15%), Student Motivation & Identity (13%) and a three-way tie between School AI Initiatives, Job Market & Career Pathways and Cognitive & Cultural Strengths (each at 12%). These are followed by Higher Education & Universities (11%), Private Sector & Startups (9%) and STEM Education System and Self-Learning Culture (each at 8%); The corresponding subcomponents reveal a holistic ecosystem spanning formal education, digital infrastructure, economic incentives, cultural attitudes and self-directed learning channels that collectively enable and encourage the development of AI skills.

Table 6 outlines five principal inhibitors of AI literacy, with Sociocultural Barriers being the most significant at 29%, followed by an Outdated Educational System (25%), Brain Drain & Talent Flight (18%), Economic Constraints (16%) and Surveillance Concerns (12%). Their subcomponents reveal interconnected challenges spanning pedagogy, culture and economics, such as a rote-learning culture, emigration of skilled talent, English proficiency gaps, job market uncertainty and fears of government monitoring, which collectively hinder the effective development of AI competencies.

Table 6 details eight components of culturally-adaptive teaching, led by Metacognitive Strategy Integration and Multilingual & Multimodal Instruction (each at 18%), followed by Culturally Relevant Project-Based Learning (15%), Peer-to-Peer & Community-Based Learning (12%), Critical AI Literacy & Ethics (11%) and both Gamified & Adaptive Learning Platforms and Cross-Disciplinary Integration (each at 8%). Their subcomponents outline a pedagogical approach that leverages cultural relevance, multiple languages and media, ethics, peer collaboration and adaptive technology to create an inclusive and effective learning environment.

As digital natives, Generation Z requires an AI literacy framework that moves beyond technical proficiency to include ethical, cultural and social dimensions. Which the research findings in the competencies section paid attention to, this entails understanding AI's technical workings while critically examining how these systems reflect and reinforce societal biases (Biagini, 2025). Immersed in AI, Gen Z must be equipped not only to use these tools but to evaluate their implications for equity, privacy and identity (Gupta et al., 2024).

Culturally responsive education is essential. Through participatory design and storytelling; like collecting family narratives or using multimedia to express cultural identity students can explore AI as a technical and cultural mediator, understanding how it can perpetuate or challenge social inequities (Dangol et al., 2024); Although cultural differences can have an impact on it, its infrastructure, especially in developing countries, should be considered in schools and universities; Hands-on activities, such as designing simple AI models, transform students from passive consumers into active creators who can identify bias and envision more equitable technologies (Wang et al., 2025).

This vision aligns with a broader educational transformation toward interdisciplinary, student-centered learning; Connecting academic content to culturally meaningful, real-world problems like environmental justice or cultural preservation fosters deeper engagement and civic responsibility; Schools also play a leading and facilitating role in this; Involving families and community leaders further enriches the curriculum with intergenerational wisdom (Eguchi, Okada, & Muto, 2021).

This holistic approach integrates several key pillars:

  1. Metacognitive Development: Teaching students to plan, monitor and evaluate their own learning cultivates independence and resilience (Chardonnens, 2025).

  2. Multilingual & Multimodal Access: Using diverse tools podcasts, infographics, simulations ensure inclusive instruction that affirms student identities (Walter, 2024).

  3. Creative Expression: Digital storytelling allows for powerful identity exploration and cultural transmission, building empathy.

  4. Ethical Technology Use: Students must learn to navigate AI's ethical dimensions, questioning systems and advocating for responsible innovation (Biagini, 2025; Chan & Lee, 2023).

  5. Engaging Tools: Gamified learning platforms can offer personalized, narrative-driven pathways that maintain engagement (Gupta et al., 2024).

  6. Collaborative Teaching: Cross-disciplinary integration prepares students to tackle complex challenges by synthesizing knowledge from multiple fields.

Together, these strategies form a cohesive vision for education that is inclusive and future-ready. By grounding learning in lived experience and fostering ethical, reflective thinking, we can equip all learners to lead with empathy, innovation and purpose.

Integrating AI literacy into a culturally responsive, interdisciplinary framework has profound implications for education and society. Academically, it requires redesigned curricula that blend technical AI knowledge algorithms, data and training with ethical reasoning and cultural relevance; Educators need professional development to lead critical discussions and create inclusive, multimodal learning experiences; Embedding AI across subjects and affirming students' cultural identities can boost engagement, strengthen metacognitive skills and ensure equitable access to future-ready learning; Assessments, in turn, must measure interdisciplinary thinking, ethical reflection and creative problem-solving.

Socially and ethically, this approach cultivates informed digital citizens and responsible innovators. By examining how AI can either perpetuate or disrupt bias, students learn to critically assess technology's impact on equity, privacy and identity; Involving families, elders and community mentors enriches intergenerational dialogue, strengthens civic ties and preserves cultural heritage through storytelling and multilingual expression; Ultimately, this model democratizes AI literacy, empowering Generation Z to not only adapt to technological change but to shape it with empathy, cultural awareness and ethical integrity.

The study's exclusive focus on Iran limits its generalizability to other constrained contexts due to a lack of comparative data; Most studies are based in high-income regions, limiting their global relevance and overlooking underrepresented communities; Structural barriers, such as rigid subject boundaries and insufficient teacher training, further hinder the integration of AI literacy into interdisciplinary and culturally responsive education. These limitations highlight the need for more inclusive, globally informed research that connects technical, ethical and cultural dimensions of AI.

To advance AI literacy in education, it is essential to first establish a unified, multidimensional framework that integrates technical, ethical and cultural components; A shared framework ensures that AI literacy is not treated as a narrow technical skill but as a holistic competency relevant across disciplines.

Equally important is investing in teacher training and fostering cross-disciplinary collaboration. Encouraging collaboration between fields such as computer science, humanities and social studies can enrich instruction and help students connect AI concepts to real-world issues.

Expanding research in underrepresented and Global South contexts is critical. Most existing studies are concentrated in high-income regions, limiting their global applicability. Context-sensitive research will help tailor AI education to local needs, promote equity and ensure that all learners are empowered to engage critically and creatively with emerging technologies.

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Licensed re-use rights only

Data & Figures

Table 1

Research on AI literacy for Generation Z

TitleFindingsAuthor (s)
Learning Beyond the Classroom in the AI Era: A Generation Z PerspectiveGen Z students are habituated to technology-rich environments aligned with their generational traits. However, increased personal motivation was paradoxically linked to higher procrastination, which in turn indirectly reinforced technology useLim and Lee (2024) 
Qualitative ethical technology assessment of artificial intelligence (AI) and the internet of things (IoT) among Filipino Gen Z membersGen Z recognizes significant ethical risks in AI and IoT, particularly regarding threats to privacy, confidentiality and data security. They are critically aware of how these technologies can compromise both personal information and broader securityJabar et al. (2024) 
AI-enhanced education: exploring the impact of AI literacy on generation Z's academic performance in northern IndiaSpecifically, higher levels of AI literacy were associated with increased engagement with AI technologies and tools for learning purposes, which led to better learning outcomes and academic performance. The findings indicated that AI literacy plays an important role in providing effective learning experiences and fostering skills such as problem solving and critical thinking among Generation Z studentsSingh et al. (2024) 
Innovation to Improve Critical Thinking Skills in the Generation Z using Pedagogy as a Learning Approach and Artificial Intelligence (AI) as a ToolIn the classroom, the effectiveness of artificial intelligence in improving critical thinking skills for Generation Z, especially the role of artificial intelligence in the learning process and support, namely, confirmsBaskoro et al. (2023) 
Source(s): Authors’ own work
Table 2

Frequency distribution of the sample of participant

CodeSexEducationWork experience (Year)Field of studyWorkplace
1MalePh.D.28Educational ManagementIslamic Azad University
2FemalePh.D.11Educational ManagementShahid Beheshti University
3MalePh.D.20Educational PsychologyUniversity of Tehran
4MalePh.D.18Educational PsychologyUniversity of Isfahan
5MalePh.D.15ComputersIslamic Azad University
6FemaleMaster17CurriculumCurriculum Specialist/School Teacher
7MalePh.D.12Educational ManagementIslamic Azad University
8FemalePh.D.15Educational ManagementShahid Beheshti University
9MalePh.D.25Information TechnologyIslamic Azad University
10MalePh.D.15ComputersIslamic Azad University
11MaleMaster20CurriculumCurriculum Specialist
12MalePh.D.21Educational PsychologyIslamic Azad University
13MalePh.D.13Educational PsychologyAllameh tabataba'i university
14FemaleMaster20Information and Communication ManagementSchool Teacher
15FemaleMaster19Educational ManagementCurriculum Specialist
16MalePh.D.15Educational PsychologyIslamic Azad University
17MalePh.D.18Educational ManagementIslamic Azad University
18FemaleMaster13Information and Communication ManagementSchool Teacher
19FemaleMaster12CurriculumCurriculum Specialist
20MaleMaster14CurriculumCurriculum Specialist
Source(s): Authors’ own work
Table 3

AI literacy competencies

ComponentMain component/PercentageSubcomponentsFrequency of subcomponentsInitial explanation
AI literacy competenciesEthical AI Awareness (%37)Understanding bias, fairness and cultural implications of AI8To cultivate ethical AI leadership, Gen Z must learn to critically evaluate technology; This includes identifying bias in generative AI, analyzing global regulations to understand cultural impacts and auditing systems like facial recognition to expose inequities. Practical engagement through ethics clubs, policy debates and community partnerships enables students to apply this knowledge, advocate for fairness and shift from passive consumption to responsible stewardship of AI.
Comparing global AI ethics frameworks5
Campaigning for equitable AI access9
Organizing intercultural AI ethics forums6
Protecting digital rights5
Creating school AI ethics clubs4
 Critical Digital Discernment (%23)Analyzing AI-generated content with cultural sensitivity5The global rise of AI necessitates culturally sensitive engagement. Users must critically evaluate AI-generated content which often contains hidden biases, misinformation or harmful stereotypes by verifying sources, contextualizing outputs and checking facts; These practices help mitigate risks, foster inclusivity and build trust in AI systems across diverse audiences
Developing skepticism toward culturally biased AI recommendations8
Catching fake news in AI results5
Detecting cross-cultural misinformation in AI tools5
 Intercultural AI Communication (%24)Using AI tools for cross-cultural dialogue5This approach ensures AI respects global diversity by facilitating cross-cultural exchange, integrating indigenous knowledge and adapting to local communication norms. It protects vulnerable users from bias, flags harmful content; and prioritizes both global competence and local relevance to prevent cultural harm
Combining AI with traditional knowledge4
Navigating politeness norms in AI chatbots4
Teaching elders about cultural AI risks5
Recognizing culturally inappropriate AI-generated content6
 Global AI Governance Fluency (%9)Understanding how cultures regulate AI differently5Understanding how cultures regulate AI differently and engaging in cross-border policy debates to shape ethical, culturally-aware AI frameworks
Engaging in intercultural AI policy debates4
 Emotional & Social AI Intelligence (%7)Navigating AI's role in cultural emotions/relationships4Examining how AI handles cultural emotions while detecting and preventing relational insensitivity in human-AI interactions
Detecting cultural insensitivity in emotional AI3
Total100 
Source(s): Authors’ own work
Table 4

Learning facilitators of AI literacy

ComponentMain component/PercentageSubcomponentsFrequency of subcomponentsInitial explanation
learning facilitators of AI literacySTEM Education System (%8)National Olympiads and competitions5Iran's education system promotes AI literacy through national Olympiads and competitions in programming and robotics, fostering innovation among youth. Additionally, curriculum design emphasizes foundational skills in math, computer science and logic; ensuring students develop the analytical rigor needed for advanced AI learning
Curriculum design (math, computer science, logic)3
 Internet Access & Infrastructure
Broadband availability (%15)
Mobile data affordability6To accelerate digital literacy, Iran must address mobile data affordability for equitable access. Simultaneously, improving internet access and tech resources in schools ensures infrastructure readiness, while boosting digital device penetration through subsidized student tablets/laptops creates a foundation for AI education nationwide
Improving internet access and tech resources in schools4
Digital device penetration5
 School AI Initiatives
Government AI curriculum (%12)
Game-based learning methods5Iranian schools are adopting interactive game-based platforms to demystify AI fundamentals, while teacher training initiatives focus on pedagogical upskilling for tech integration; After-school programs like student-led tech circles further nurture hands-on experimentation with machine learning tools in collaborative environments
Upskilling educators to teach AI concepts effectively3
AI clubs and extracurriculars4
 Higher Education & Universities (%11)Student-led AI projects3Universities across Iran are expanding AI-focused degree programs, supported by cutting-edge research centers and labs; These institutions also encourage student-led AI projects, offering hands-on experience that bridges academic theory with real-world innovation in fields like healthcare, robotics and natural language processing
Research centers and labs5
AI-focused degree programs3
 Self-Learning Culture (%8)Telegram/Instagram learning channels5Many Iranian students are turning to informal digital spaces to deepen their understanding of AI. Through interactive discussions and shared resources on popular platforms, they build collaborative learning communities that foster curiosity; technical skill and a sense of belonging beyond traditional classrooms
Peer-to-peer learning groups3
 Job Market & Career Pathways (%12)AI-related job availability5As AI reshapes the workforce, universities are partnering with industry to prepare students for emerging roles; Through mentorship, real-world projects and exposure to evolving career pathways, learners gain practical insights that bridge academic knowledge with the demands of a tech-driven economy
Internship opportunities2
Industry-academia partnerships3
Career counseling in AI2
 Student Motivation & Identity (%13)Tech as a tool for social change4Driven by a sense of purpose and global ambition, many young learners are embracing emerging technologies to address societal challenges; Through innovation, collaboration and a forward-looking mindset, they're shaping new narratives around opportunity, equity and the transformative role of intelligent systems in their communities
Awareness of AI job opportunities2
Desire for global competitiveness3
Youth-led AI advocacy4
 Cognitive & Cultural Strengths (%12)High adaptability3In a rapidly evolving digital world, many young learners demonstrate remarkable flexibility and drive; With strong encouragement from home and an innate thirst for discovery, they actively seek knowledge motivated not only by personal growth but also by a desire to excel on a global stage
Encouragement from families to pursue tech education4
Curiosity-driven learning3
Desire to match or exceed international peers2
 Private Sector & Startups (%9)Opportunities in AI-driven companies2With the tech landscape rapidly evolving, young professionals are increasingly drawn to organizations that invest in their growth. Through targeted training programs and future-focused roles, companies are cultivating a new generation of talent equipped to lead in an AI-powered economy
Career incentives for AI-skilled youth5
AI upskilling by tech firms2
Total100 
Source(s): Authors’ own work
Table 5

Learning inhibitors of AI literacy

ComponentMain component/PercentageSubcomponentsFrequency of subcomponentsInitial explanation
learning inhibitors of AI literacyEconomic Constraints (%16)Low Investment in EdTech8As the digital education landscape evolves, learners face growing ambiguity about future prospects. Limited institutional support and shifting economic signals have made it harder to predict long-term outcomes, prompting many to question the stability of emerging pathways in tech-driven learning and employment
Job Market Uncertainty8
 Outdated Educational System (%25)Rote-Learning Culture8Many classrooms prioritize accuracy and repetition, emphasizing exam-focused mastery over creative exploration. While efficient for testing, this approach often limits students' ability to apply knowledge creatively or develop the analytical skills needed for real-world problem-solving
Emphasis on Theoretical Over Practical Skills9
Focus on memorization over critical thinking8
 Brain Drain & Talent Flight (%18)Skilled Youth Emigrating8Despite growing expertise among young professionals, many face limited local opportunities and barriers to global engagement. Structural constraints and economic disparities often prompt them to seek more rewarding environments abroad, where their skills are better recognized and mobility in the digital economy is less restricted
Low Salaries in Tech Sector Compared to global standards5
Restrictions on Remote Work, Difficulty working for international AI firms5
 Sociocultural Barriers (%29)English proficiency gaps hinder access to resources9For many learners, navigating the world of intelligent systems can feel distant and uncertain. Cultural hesitations, limited exposure to diverse perspectives and the pressure to succeed often create invisible barriers – making it harder to fully engage with tools shaped by unfamiliar norms and languages
Fear of Failure4
Western-centric AI content8
Religious/cultural skepticism about AI's role8
 Surveillance Concerns (% 12)Fear of government monitoring7As intelligent systems become more integrated into daily life, some users remain cautious about how their information is handled. Uncertainty around digital transparency and the invisible reach of automated technologies can create hesitation, especially when trust in institutional safeguards feels fragile or incomplete
Concerns about data security in AI applications5
Total100 
Source(s): Authors’ own work
Table 6

Culturally-adaptive teaching

ComponentMain component/PercentageSubcomponentsFrequency of subcomponentsInitial explanation
Culturally-adaptive teachingCulturally Relevant Project-Based Learning (% 15)Connecting academic content to authentic, culturally meaningful problems5Learning becomes deeply personal and impactful when students engage in real-world challenges rooted in their communities, guided by local voices and traditions, while reflecting on how their cultural identities shape their perspectives, problem-solving approaches and contributions to collective knowledge
Encouraging students to reflect on how their culture shapes their learning5
Involving local leaders, elders or organizations in project design5
 Metacognitive Strategy Integration (% 18)Modeling cognitive processes during problem-solving5Visible thinking and guided reflection help students navigate challenges confidently. With structured strategy instruction and self-evaluation, learners develop the resilience to plan, monitor and adapt their learning intentionally
Teaching students to embrace challenges and learn from mistakes4
Explicit teaching of planning, monitoring and evaluating techniques5
Structured opportunities to evaluate learning strategies and outcomes4
 Multilingual & Multimodal Instruction (%18)Encouraging use of multiple languages for comprehension and expression7Learning thrives when students engage with rich, interactive media and diverse forms of communication. By embracing multiple languages and multimodal tools, learners access content more deeply, express ideas more fullyand connect meaningfully across linguistic and cultural boundaries
Interactive tools like podcasts, animations and simulations6
Info graphics, videos and audio recordings to reinforce understanding5
 Peer-to-Peer & Community-Based Learning (%12)Involving family or elders in the learning process4Learning flourishes when students engage with real-world challenges that matter to their communities, guided by the wisdom of elders, the support of families and the mentorship of peers. These connections foster purpose, deepen understanding and cultivate a shared responsibility for growth and contribution
Projects that address community needs while building academic skills3
Pairing students with peers, older students or community mentors5
 Creative Expression & Cultural Storytelling (% 10)Using multimedia tools to narrate personal or cultural stories3Storytelling enables students to explore identity by connecting with heritage and community. Through multimedia narratives grounded in family, symbols and tradition, they honor diverse voices and craft meaningful expressions that bridge personal and cultural realms
Collecting and sharing stories from family or community members4
Exploring identity through objects, symbols and traditions3
 Critical AI Literacy & Ethics (%11)Designing simple AI models or simulations to explore ethical design5By engaging with the inner workings of AI – its data, algorithms and design – students develop a foundational understanding of intelligent systems. Through hands-on creation and ethical exploration, they learn to question how technology shapes society and how responsible innovation begins with informed, critical thinking
Understanding how data is collected, used and protected3
Understanding how AI works (algorithms, data, training)3
 Gamified & Adaptive Learning Platforms (%8)Creating Adaptive algorithms that tailor content to learner needs2Narrative-driven, adaptive learning journeys personalize education through scaffolded challenges and meaningful quests. These immersive experiences keep students engaged and motivated, empowering self-paced growth within purposefully designed storytelling frameworks
Narrative-Based Learning4
Levels, quests and missions that scaffold learning2
 Cross-Disciplinary Integration (%8)Tackling complex issues that require multiple lenses3Interdisciplinary collaboration among educators enables students to address complex real-world problems through diverse perspectives. Well-designed tasks and assessments help learners creatively integrate knowledge and tackle challenges beyond conventional academic boundaries
Rubrics and tasks that evaluate interdisciplinary skills2
Collaborative Teaching3
Total100 
Source(s): Authors’ own work

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