INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS | Volume IX Issue X October 2025
education and those required by the modern design industry (Tang et al., 2024; Fleischmann, 2024). This gap
extends beyond basic AI literacy to include prompt engineering, data visualization, algorithmic thinking, and
human AI collaboration skills that are now indispensable for professional creative practice (Ithaka S+R, 2024;
UNESCO, 2023). Despite these technological shifts, many higher education institutions continue to rely on
outdated curricula that do not reflect the realities of contemporary design practice. Only a limited number of
programs currently offer structured courses or modules focused specifically on AI applications in creative
disciplines (Oh, 2024). Consequently, students often acquire these emerging skills informally through self-
learning, experimentation, and online networks, leading to uneven competency levels among graduates (Leaton
Gray, 2025; AIGA Design Educators Community, 2024).
This misalignment between education and industry has far-reaching global consequences. In developed
economies, design graduates frequently enter the workforce underprepared for AI-integrated environments,
where automated ideation, adaptive branding, and generative prototyping are becoming standard practices
(Design Council, 2024; European Commission, 2024). Meanwhile, in low- and middle-income nations, limited
access to AI infrastructure and institutional capacity further deepens the digital divide, restricting opportunities
for students to engage with new technologies (UNESCO, 2023). The resulting inequity in AI-related education
threatens both employability and international competitiveness in the global design workforce. Furthermore,
recent industry surveys reveal a rising demand for multimodal designers professionals who possess not only
technical and conceptual expertise but also ethical awareness and critical judgment. Employers now seek
designers who can navigate the intersection between human creativity and machine intelligence, evaluating AI-
generated outcomes through lenses of ethics, strategy, and cross-disciplinary collaboration (Ithaka S+R, 2024;
Tang et al., 2024; U.S. Copyright Office, 2025).
To bridge this widening gap, universities must reconceptualise design education by systematically integrating
AI-focused competencies into their curricula. This transformation involves embedding AI literacy and ethics,
developing hands-on generative design studios, and aligning learning outcomes with evolving industry
standards. Equally important are faculty up skilling and institutional governance reforms to ensure sustainable,
equitable, and future-ready implementation. Ultimately, a strategic and globally informed approach is essential
one that prepares graduates not merely to use AI tools, but to lead the next generation of creative innovation
through them.
B. Assessment Integrity and Authenticity
AI-generated outputs are increasingly blurring the lines between human and machine-created student work,
posing significant challenges to traditional assessment systems in higher education worldwide. Conventional
evaluation formats such as take-home assignments and unguided design projects are now especially susceptible
to undetected AI assistance or even fully AI-generated submissions. Studies conducted across Australia, the
United Kingdom, and the United States reveal that current AI-detection tools lack reliability, often producing
inconsistent or inaccurate results and raising serious concerns about fairness, transparency, and procedural
justice (Leaton Gray, 2025; TEQSA, 2025). Furthermore, false accusations stemming from flawed detection
systems can disproportionately impact marginalized student groups, deepening issues of inequity and eroding
trust between learners and institutions (UNESCO, 2023).
In response, universities worldwide are increasingly adopting authentic, process-based assessment approaches
that focus on creative reasoning and reflective practice rather than solely on final outcomes. These emerging
strategies include structured oral defenses, live studio critiques, peer-assessed progress reviews and version-
tracked project portfolios that highlight students’ decision-making, iteration, and critical thinking throughout the
design process (Fleischmann, 2024). This pedagogical shift aligns closely with UNESCO’s advocacy for human-
centered AI adoption in education, reducing dependence on unreliable detection systems and emphasizing
ethical, transparent learning practices (UNESCO, 2023).
Additionally, incorporating reflective documentation of AI usage such as prompt journals, process logs, and
ethical self-assessments enhances academic honesty while nurturing students’ critical AI literacy and ethical
awareness (Tang et al., 2024). Collectively, these developments represent a global reorientation of assessment
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