🏷️ Concept
Technology Acceptance Model
The Technology Acceptance Model (TAM), proposed by Davis (1989), explains and predicts users' adoption of new technologies through two core beliefs: Perceived Usefulness (PU) and Perceived Ease of Use (PEOU), which shape users' Attitude (ATT) toward the technology. Attitude then predicts Behavioral Intention (BI) to use it, which ultimately influences actual usage behavior. Grounded in information systems theory, TAM has become the dominant framework for studying generative AI adoption in education.
Core Structure
The classic TAM posits that PU and PEOU jointly determine attitude, which drives behavioral intention and, in turn, actual use. In educational GenAI research, TAM is frequently extended with additional predictors — including AI Literacy, Trust, social influence, self-determination, and critical use — to capture the complexity of AI acceptance beyond simple uptake.
Applications in the Wiki
TAM is applied across the wiki to model student and teacher adoption of AI tools:
- Critical use extension: Nguyen et al. extended TAM with the construct of critical use for engineering/CS students, finding that attitudes and critical use directly predict intention, which then predicts reliance across understanding, assessment, programming, and engineering-project domains — and that critical use safeguards against over-reliance.
- Unified socio-cognitive model: Asag & Al Mamun integrated TAM with UTAUT to model engineering students' GenAI adoption in Bangladesh, showing that job relevance, result demonstrability, and subjective norms shape acceptance (explaining 64% of usage variance).
- Regulatory competence critique: Kim argues that adoption-centered TAM models treat use as a stable decision, whereas effective AI use is an ongoing process of judgment, revision, and selective uptake — framing AI Literacy as regulatory competence and Critical Thinking rather than acceptance.
Limits and Extensions
While TAM is effective for predicting uptake, it is less well suited to explaining how students work with AI output once generated. Reviews of GenAI in higher education increasingly note that TAM alone is insufficient, prompting integration with frameworks such as UTAUT and Self-Determination Theory, and the addition of post-adoption constructs like critical use, reliance, and evaluative judgment.
Connected Concepts
- Business Education
- Generative AI
- AI Literacy
- Student Experience
- Higher Ed
- Critical Thinking
- Ethics
- Trust
- Cognitive Offloading
- Self Determination Theory
- Research Methods AIED
- Student Modeling
- Framing AI Use For Students
Connected Articles
- Alrahmi Org Drivers AI Adoption He 2026
- Tam Critical Use GenAI Engineering 2026 — Extended TAM with critical use for engineering/CS students
- Socio Cognitive GenAI Adoption Engineering 2026 — Unified socio-cognitive model for engineering education
- AI Anxiety Strategic Regulation Writing 2026 — From AI anxiety to strategic regulation
- GenAI Reliance Types Scale — GenAI reliance types scale
- LLM Reliance Types Undergrad — LLM reliance types among undergraduates
- AI Acceptance Preservice Science Teachers 2026 — AI acceptance among preservice science teachers
- Acceptance AI English Tools 2026 — Acceptance of AI English tools
- Chen Preservice Teachers Chatgpt Lpa 2026 — Pre-service teacher ChatGPT acceptance profiles