Synergising Computational and Design Thinking in Design Education: A Dual‐Process Framework to Enhancing Creativity and Appropriateness

Abstract This study addressed the critical challenge of integrating computational thinking (CT) and design thinking (DT) in design education, a necessity further amplified by the rapid proliferation of generative artificial intelligence (AI) to enhance both creativity and appropriateness in design outcomes. Grounded in cognitive theory, a novel dual‐process framework is proposed and validated, synergising CT's algorithmic rigour with DT's iterative empathy within a structured two‐dimensional ontology space. In an experiment on fashion pattern design, AI style transfer extended human‐originated concepts. Using a mixed‐methods approach—combining eye‐tracking, subjective ratings and expert evaluation—results demonstrate that CT‐extended designs significantly outperformed human‐originated counterparts in creativity (originality, usefulness) and appropriateness (thematic relevance, aesthetic satisfaction). The findings support the framework's efficacy in expanding the solution space while ensuring contextual coherence, balancing divergent and convergent processes. Theoretically, it contributes a validated dual‐process model; methodologically, a replicable multimodal protocol; and practically, it provides design educators actionable, evidence‐based guidance for integrating AI, including structured cognitive bridging prompts.

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Publication Details

Journal
International Journal of Art & Design Education
Published
2026-01-20
DOI
https://doi.org/10.1111/jade.70017
Primary Topic
Design Education and Practice
Type
article
Field-Weighted Citation Impact
0.00
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article

Synergising Computational and Design Thinking in Design Education: A Dual‐Process Framework to Enhancing Creativity and Appropriateness

W. Wang, Yuan Fang, Yufan Yang
International Journal of Art & Design Education
Design Education and Practice
article

Synergising Computational and Design Thinking in Design Education: A Dual‐Process Framework to Enhancing Creativity and Appropriateness

W. Wang, Yuan Fang, Yufan Yang
article en

Abstract

Abstract This study addressed the critical challenge of integrating computational thinking (CT) and design thinking (DT) in design education, a necessity further amplified by the rapid proliferation of generative artificial intelligence (AI) to enhance both creativity and appropriateness in design outcomes. Grounded in cognitive theory, a novel dual‐process framework is proposed and validated, synergising CT's algorithmic rigour with DT's iterative empathy within a structured two‐dimensional ontology space. In an experiment on fashion pattern design, AI style transfer extended human‐originated concepts. Using a mixed‐methods approach—combining eye‐tracking, subjective ratings and expert evaluation—results demonstrate that CT‐extended designs significantly outperformed human‐originated counterparts in creativity (originality, usefulness) and appropriateness (thematic relevance, aesthetic satisfaction). The findings support the framework's efficacy in expanding the solution space while ensuring contextual coherence, balancing divergent and convergent processes. Theoretically, it contributes a validated dual‐process model; methodologically, a replicable multimodal protocol; and practically, it provides design educators actionable, evidence‐based guidance for integrating AI, including structured cognitive bridging prompts.

International Journal of Art & Design Education
Dalian Polytechnic University (CN), Bank of China (CN)
Quality Education
Openalex Percentile: Top 82%
Design Education and Practice
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