Skip to main content
Enterprise AI Analysis: Construction of an Evaluation System for Design-related Professional Courses Based on AIGC Technology

Enterprise AI Analysis

Construction of an Evaluation System for Design-related Professional Courses Based on AIGC Technology

Addressing the inadequacy of existing design education assessment systems in evaluating AIGC-assisted works, this study aims to construct a course evaluation framework for human-AI collaborative creation. The research employed scoping review methodology for indicator extraction, combined AHP-Entropy weighting for weight determination, and case-based validation through authentic design projects. Results indicate that the four-dimensional, twelve-indicator hierarchical framework demonstrates satisfactory structural validity and inter-rater consistency, with creative thinking and human-AI collaboration receiving higher weights as core dimensions. This research establishes human-AI collaboration as an independent evaluation dimension, providing design educators with an assessment instrument grounded in both theoretical foundations and empirical validation, thereby facilitating response to emerging challenges in course evaluation within the generative AI era.

Executive Impact & Key Findings

This study develops a robust, four-dimensional, twelve-indicator evaluation framework for AIGC-assisted design courses. Utilizing an AHP-Entropy weighting method and validated through 45 real-world design projects, the framework emphasizes creative thinking and human-AI collaboration as critical competencies. It provides design educators with a theoretically grounded and empirically validated tool to assess student learning outcomes in the generative AI era, particularly highlighting the unique role of human-AI collaboration.

0.847 Inter-Coder Reliability (Kappa)
12 Framework Indicators
0.047 Consistency Ratio (CR)
0.814 Spearman Correlation
0.79 Overall ICC

Research Methodology Flow

Data Collection (Literature, Frameworks, Projects)
Indicator Extraction (Scoping Review, Content Analysis)
Framework Refinement (Expert Consultation, Standards Alignment)
Weight Determination (AHP-Entropy Method)
Framework Validation (Case Studies, ICC)
Evaluation System Construction

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

Hierarchical Evaluation Framework

The study proposes a two-level hierarchical framework with four dimensions and twelve operational indicators, aligning with UNESCO and ISTE standards. This structure emphasizes process-oriented evaluation, prioritizing human-AI collaboration alongside traditional design aspects.

Dimension Key Indicators
Creative Thinking (A)
  • Problem Identification
  • Ideation Generation
  • Critical Evaluation
Technical Application (B)
  • Tool Selection
  • Prompt Engineering
  • Iterative Optimization
Human-AI Collaboration (C)
  • Task Allocation
  • Process Integration
  • Ethical Awareness
Outcome Performance (D)
  • Completeness
  • Innovation
  • Expression
Independent Evaluation Dimension

Human-AI Collaboration: A New Dimension

Crucially, the research establishes Human-AI Collaboration as an independent evaluation dimension. This addresses the gap in existing frameworks and provides specific criteria—Task Allocation, Process Integration, and Ethical Awareness—for assessing student competencies in co-creative processes with AI systems.

34.2% Combined Weight

Highest Importance: Creative Thinking

Creative Thinking received the highest combined weight (0.342) in the AHP-Entropy analysis. This highlights its paramount importance in AIGC-assisted design education, affirming that human creativity remains central despite AI's capabilities in content generation.

26.8% Combined Weight

Second Highest: Human-AI Collaboration

Human-AI Collaboration ranked as the second most important dimension with a combined weight of 0.268. This underscores the critical need for developing competencies in effective interaction with AI, including task allocation, process integration, and ethical considerations in AI-enhanced creative workflows.

0.79 Overall ICC

Overall Inter-rater Reliability

The framework demonstrates good inter-rater reliability, with an overall Intraclass Correlation Coefficient (ICC) of 0.79 (95% CI: 0.69-0.85). This exceeds the conventional threshold of 0.75 for acceptable consistency, validating its practical feasibility for educational assessment.

Competency Mismatch in Human-AI Collaboration

"The validation outcomes of this study revealed that the concurrent process of human-AI collaboration demonstrated the lowest mean score of 3.21 and the lowest intra-class correlation coefficient of 0.76."

Section 4, Discussion

Despite its high assigned weight, Human-AI Collaboration exhibited the lowest mean score (3.21) and ICC (0.76) in the validation phase. This suggests a current competency mismatch, indicating students and educators face challenges in effectively measuring and developing dynamic human-AI interaction skills compared to technical application (mean 3.58, highest).

Calculate Your Potential AI Impact

Estimate the potential time and cost savings for your enterprise by implementing AI-assisted design processes based on our framework.

Annual Cost Savings $0
Annual Hours Reclaimed 0

Your AI Implementation Roadmap

A strategic phased approach to integrating the AIGC evaluation framework into your educational programs.

Phase 1: Framework Integration

Integrate the four-dimensional, twelve-indicator framework into existing design course curricula. Develop detailed rubrics for each indicator, focusing on how human-AI collaboration elements like prompt engineering and task allocation are assessed. Provide training to educators on the new assessment criteria and tools.

Phase 2: Pedagogical Adaptation

Redesign learning activities to explicitly foster human-AI collaborative competencies. Implement project-based learning scenarios where students actively engage with generative AI tools, documenting their prompts, iterative processes, and critical evaluations. Emphasize ethical considerations and responsible AI use in design projects.

Phase 3: Continuous Evaluation & Feedback

Regularly apply the evaluation system to student projects, collecting data on indicator performance and inter-rater consistency. Use feedback from educators and students to refine rubrics and teaching strategies. Monitor changes in student competencies over time, particularly in human-AI collaboration skills.

Phase 4: Scaling & Dissemination

Share the validated framework and best practices with other institutions and design programs. Publish case studies and empirical findings to contribute to the broader discourse on AI in design education. Explore opportunities for tool integration to automate aspects of assessment or provide real-time feedback on AI-assisted creative processes.

Ready to Transform Your Design Education with AI?

Unlock the full potential of AIGC in your curriculum with a robust evaluation framework. Contact us to tailor a solution that fits your institution's needs.

Ready to Get Started?

Book Your Free Consultation.

Let's Discuss Your AI Strategy!

Lets Discuss Your Needs


AI Consultation Booking