AI in Computational Thinking Education in Higher Education: A Systematic Literature Review

In 2025 and 2026, researchers have turned a spotlight on how Artificial Intelligence is reshaping Computational Thinking (CT)—the cognitive ability to solve problems, design systems, and understand human behavior through computer science concepts.

A seminal systematic literature review (e.g., Rahimi & Maathuis, 2025) titled “AI in Computational Thinking Education in Higher Education” examines how AI tools are moving beyond simple coding assistants to become core components of the “CT mindset.”


1. The Intersection: AI and CT Components

The review highlights that AI does not just “help” with CT; it redefines its core components for university students.

CT ComponentAI’s Role in Higher EducationEffect on Learning
AbstractionAI tools help students identify high-level patterns in massive datasets.Shifts focus from syntax to architectural thinking.
Algorithmic DesignGenerative AI suggests multiple algorithmic paths for a single problem.Encourages comparative analysis and optimization.
DecompositionAI-driven “solvers” break complex engineering problems into modular tasks.Helps students manage cognitive load in advanced projects.
DebuggingIntelligent Tutoring Systems (ITS) provide “scaffolded” hints rather than just fixes.Promotes metacognition (thinking about the “why” behind errors).

2. Emerging AI Techniques in CT Education

The meta-analysis identifies specific AI methodologies currently being used in university labs:

  • Predictive Student Modeling: Using machine learning to create a profile of a student’s CT background. This allows platforms to adapt the difficulty of coding challenges in real-time.
  • Explainable AI (XAI) as a Tutor: New systems (e.g., Conati et al., 2025) explain why an AI provided a specific hint, helping students understand the underlying logic of the solution.
  • Multimodal Analytics: Capturing students’ eye movements, keystrokes, and verbal explanations to assess “CT-in-action,” providing a much richer assessment than a final exam score.

3. Benefits vs. The “Creativity Dip”

The 2025 review presents a nuanced view of the impact of AI on the student experience.

The Promises:

  • Personalization: AI addresses the issue of “diverse backgrounds,” allowing students with no prior coding experience to catch up through adaptive paths.
  • Motivation: The use of social robots and AI-driven gamification has been shown to significantly promote the acquisition of CT skills.

The Pitfalls:

  • Creativity Erosion: A significant finding in recent studies (e.g., Liang, 2025) suggests that over-reliance on Generative AI can diminish a student’s ability to find “out-of-the-box” solutions, as they default to the “statistically average” answer provided by the model.
  • Complexity Barrier: Many educators report that the knowledge required to develop and manage these AI-CT tools is a major hurdle for universities with limited technical budgets.

4. Key Recommendations for 2026

The systematic review concludes that for AI to successfully “bridge the gap” in CT education, institutions must:

  1. Move to “White-Box” AI: Use tools that allow students to see and audit the AI’s logic, rather than “Black-Box” tools that simply output code.
  2. Foster Human-AI Symbiosis: Redesign curricula where the goal is not to “compete” with AI, but to use AI as a collaborator to tackle “wicked” problems that neither could solve alone.
  3. Address Invalid Assumptions: The review warns that many current AI tools assume all students learn at a “normal” pace; 2026 models must account for neurodiversity and varied prior knowledge.

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