Exploring Challenges and Opportunities to Support Designers in Learning to Co-create with AI-based Manufacturing Design Tools
Honorable MentionAuthors
Document Title
Exploring Challenges and Opportunities in Supporting Designers' Learning and Co-Creation with AI-Based Manufacturing Design Tools
Document Information
- Subject Area: Human-Computer Interaction (HCI), AI Collaborative Design, Computer-Aided Design
- Keywords: Human-AI Collaboration, Generative AI, Design Tools, Learning Challenges, Think-Aloud Method, Team Learning
Research Background and Issues
-
Identified Problems or Challenges:
- Designers require skills different from those needed for traditional CAD tools when using generative AI-supported design tools.
- Current design tools lack effective mechanisms to support designers in learning to co-create with AI.
- High-quality design outcomes often require designers to deeply understand and adapt to AI behavior.
- There is a lack of empirical research on real-world design tasks, especially on how designers learn to collaborate with AI tools.
-
Importance of the Issues:
- Modern manufacturing processes are complex, and design tasks demand higher cognitive capabilities; AI tools can help optimize design objectives.
- AI tools are increasingly becoming co-creative partners in the design process, but there is a significant learning curve for collaboration with AI.
- With technological advancements, designers are likely to rely more on AI for solving complex design problems in the future.
-
Research Motivation and Related Work:
- Leveraging team learning and human collaboration theories to explore how to support designers in effectively collaborating with AI.
- Applying existing theories from human collaboration, cognitive psychology, and learning sciences to human-AI collaborative design tools.
- Observing interactions between designers and AI tools to identify challenges and propose improvements.
Solution
-
Methodology:
- Conducted two studies:
- Study 1: Observed trained designers with no prior experience using AI tools as they collaborated with AI tools to complete complex design tasks.
- Study 2: Recruited new designers to complete tasks alongside experienced "peer mentors," observing the support strategies employed by the mentors.
- Conducted two studies:
-
Innovations:
- Proposed a multi-level learning framework combining team learning and human-AI collaboration theories to understand designers' learning processes.
- Identified typical challenges in designer-AI collaboration and provided specific recommendations for improving design tools.
- Investigated the effectiveness of human-guided strategies in enhancing designers' collaboration with AI tools.
-
Implementation Steps:
- Data Collection:
- Used the "think-aloud method" to record designers' verbal thought processes.
- Collected design outcomes from completed tasks and feedback from post-task interviews.
- Data Analysis:
- Conducted qualitative and quantitative analysis of video interactions and interview content.
- Coded design challenges and learning strategies, extracting key conclusions through thematic analysis.
- Data Collection:
Research Findings
-
Key Findings:
- Identified three major challenges:
- Difficulty in understanding and refining AI-generated results.
- Lack of a sense of "collaboration" with AI, leading some designers to avoid using AI features.
- Difficulty in effectively communicating design goal parameters to AI.
- Successful designers employed the following learning strategies:
- Systematically testing the boundaries and capabilities of the AI.
- Enhancing problem understanding through self-explanation and reflective questioning.
- Observed five support strategies used by human mentors, including step-by-step guidance, expressing uncertainty, and suggesting alternative solutions.
- Identified three major challenges:
-
Advantages and Comparisons:
- Provided a systematic set of learning support strategies and design optimization recommendations to help designers fully utilize AI tools in complex tasks.
- Validated the effectiveness of team learning theories in the domain of human-AI collaboration through real-world cases.
-
Experiment and Evaluation Results:
- Data indicated that the mentoring process significantly improved designers' collaboration with AI tools and their satisfaction with the design process (task completion rates increased).
- Designers expressed a general expectation for more interactive tools capable of providing example-based suggestions.
-
Limitations and Future Directions:
- Limitations:
- Participants were mostly student designers with limited industry experience.
- The AI tools used were in early development stages, and interface issues may have influenced results.
- Tasks were conducted in experimental settings, which may differ from professional design environments.
- Future Directions:
- Explore learning support frameworks in other domains (e.g., image and music generation).
- Enhance AI tools' contextual awareness and multimodal interaction capabilities.
- Develop more dynamic human-AI collaboration models and create new tools to support increasingly complex design tasks.
- Limitations:
Research Questions / Practical Problems
Question signals indexed for this paper.
Research Questions
3- What learning challenges do designers face when collaborating with AI-based manufacturing design tools?Category: Human-AI Co-Creation and Collaborative InteractionSimilar questionsarrow_forward
- How can team learning theory support designers in efficiently collaborating with AI tools?Category: Human-AI Co-Creation and Collaborative InteractionSimilar questionsarrow_forward
- Which human guidance strategies can effectively help designers improve collaboration with AI tools?Category: Human-AI Co-Creation and Collaborative InteractionSimilar questionsarrow_forward
Practical Problems
1- Designers struggle to get started with AI design tools and face challenges collaborating efficiently with AI.Category: Human-AI Co-Creation and Collaborative InteractionSimilar questionsarrow_forward
- 100%
Design Ideation with AI - Sketching, Thinking and Talking with Generative Machine Learning Models
DIS '23· Generative AI (Text, Image, Music, Video) +1
- 80%
ICONATE: Automatic Compound Icon Generation and Ideation
CHI '20· Generative AI (Text, Image, Music, Video) +2
- 80%
Jigsaw: Supporting Designers to Prototype Multimodal Applications by Chaining AI Foundation Models
CHI '24· Generative AI (Text, Image, Music, Video) +2
- 80%
Dancing With Chains: Ideating Under Constraints With UIDEC in UI/UX Design
CHI '25· 360° Video & Panoramic Content +2
- 80%
DesignMinds: Enhancing Video-Based Design Ideation with a Vision-Language Model and a Context-Injected Large Language Model
CUI '25· Generative AI (Text, Image, Music, Video) +2
- 80%
”Clay to Play With”: Generative AI Tools in UX and Industrial Design Practice
DIS '24· Generative AI (Text, Image, Music, Video) +2
- 80%
BO as Assistant: Using Bayesian Optimization for Asynchronously Generating Design Suggestions
UIST '22· Generative AI (Text, Image, Music, Video) +2
- 80%
GenTune: Toward Traceable Prompts to Improve Controllability of Image Refinement in Environment Design
UIST '25· Generative AI (Text, Image, Music, Video) +2
- 75%
User Experience Design Professionals’ Perceptions of Generative Artificial Intelligence
CHI '24· Generative AI (Text, Image, Music, Video) +1
- 75%
Hidden Layer Interaction: A Technique to Explore the Material of Generative AI
DIS '25· Generative AI (Text, Image, Music, Video)
Based on Jaccard similarity of research subtopics & professions (≥60%)