🏷️ stem-education
115 pages tagged with stem-education(101 articles, 14 concepts)
📄 Studying Circular Motion with an AI-Generated Smartphone Physics Lab
> **Synthesis:** Suñer et al. (2026) show that a fully customized, browser-based rotation laboratory can be generated entirely through natural-language prompting of an AI assistant, with no manual cod…
2026-08-13 · physics-education, mobile-learning, generative-ai, content-generation, personalized-learning
📄 Computational Thinking to Enhance Educational Robotics in Secondary School's Curriculum
> **Synthesis:** Valls i Pou (2026) examines how computational thinking can enhance the effective integration of educational robotics into secondary school curricula. Arguing that educational robotics…
📄 Embodied Inquiry with AI as Facilitator: An Exploratory Case Study
> **Synthesis:** Tufino & Damiani (2026) explore where a language-based AI can stand within an inquiry activity without displacing embodied experience, using a Master's-level physics education course …
📄 From Prompt to Embodied Simulation: Using Generative AI to Create AR Physics Learning Tools
> **Synthesis:** Levy et al. (2026) show how a structured natural-language prompt can generate a browser-based, hand-controlled **augmented-reality (AR) physics simulation** — spread your thumb and in…
📄 Integrating Generative AI into Cybersecurity Education: A Study of OCR and Multimodal LLM-Assisted Instruction
> **Synthesis:** Patel et al. (2025) present an LLM-assisted instructional integration with a virtual cybersecurity lab platform, addressing workforce reskilling needs driven by the digital transforma…
📄 Students' Epistemological Beliefs and their Chatbot Preferences in AI-mediated Physics Learning
> **Synthesis:** Sirnoorkar & Mamidpalliwar (2026) investigate the association between introductory physics students' preferences for chatbot behavior and their epistemological beliefs, using a custom…
🏷️ Robots in Education
> **Robots in education (educational robotics)** — the use of physical or simulated robots as tools for teaching and learning. Educational robotics spans a wide spectrum: from programmable kits that t…
📄 Perceptions and Acceptance of Artificial Intelligence in Science Education Programmes: Voices of Pre-Service Science Teachers
> **Synthesis:** This survey of 380 pre-service science teachers in Ghana, guided by UTAUT and the Theory of Planned Behaviour, finds generally positive perceptions of AI and strong intentions to use …
📄 Curriculum as Code: An AI-Assisted Architecture for Instructional Design in STEM Education
> **Synthesis:** This paper presents a six-phase AI-assisted instructional design architecture based on the Curriculum as Code paradigm, integrating Generative AI with LaTeX and Python to automate the…
2026-08-10 · instructional-design, generative-ai, curriculum-design, higher-ed, project-based-learning
📄 Perceptions And Acceptance of Artificial Intelligence in Science Education Programmes: Voices of Pre-Service Science Teachers
> **Synthesis:** Amponsah, Adu-Boahen, Commey-Mintah, Kumassah, Ayittey & Nketsiah (2026) survey 380 pre-service science teachers in Ghana using UTAUT and TPB frameworks, finding generally positive AI…
📄 Chat Debugging: An Exploratory Study of Human-AI Collaboration to Debug Analog Circuits
> **Synthesis:** This exploratory study investigates how undergraduates use [[llm|LLMs]] to debug malfunctioning analog circuits under exam conditions, identifying both promising [[human-ai-collaborat…
🏷️ Computational Thinking
> **Computational thinking** — a problem-solving approach involving decomposition, pattern recognition, abstraction, and algorithmic design. In AI education, computational thinking is both a prerequis…
🏷️ CS Education and AI
> **CS Education** — computer science education is the most-researched STEM subfield in the wiki, benefiting from natural alignment between AI tools and programming tasks. Code generation, debugging a…
🏷️ Intelligent Tutoring
> **Intelligent Tutoring Systems (ITS)** — a well-established subfield of AI in education that uses AI to model student knowledge, adapt instruction, and provide personalized feedback, typically throu…
🏷️ Math Education
> **Math Education** — the study of how students learn mathematics and how AI can support mathematics teaching, spanning affective tutoring, cognitive diagnosis from handwritten work, productive strug…
🏷️ Physics Education
> **Physics Education** — the study of how students learn physics and how to teach it more effectively, spanning Socratic AI tutoring, computational thinking assessment, student trust and AI adoption …
📄 Pragmatic users and skeptical nonusers: A qualitative typology of ChatGPT adoption in physics education
> **Synthesis:** Becker, Bauer, Schrader, Bitzenbauer & Veith (2026) analyze 1,189 survey responses from physics students using qualitative content analysis and latent class analysis, identifying two …
📄 Trust-utility gap in introductory physics education: Students' adoption, domain-specific skepticism, and preferences for AI integration
> **Synthesis:** Fouad & Bentley (2026) survey 81 introductory physics students and find a striking 50-percentage-point trust-utility gap: 91% use AI for coursework but only 41% trust AI physics expla…
🏷️ Pedagogical Agent
> **Synthesis**: Pedagogical agents are AI-driven conversational interfaces embedded in learning environments that use pedagogical strategies (eliciting, telling, scaffolding) to support learner engag…
📄 Using LLMs to Detect Growth in Computational Thinking in Introductory Physics
> **Synthesis:** Savage, Shanker, Michlitsch & Rebello (2026) investigate using LLMs to evaluate students' written explanations of computational physics problems at scale. Establishing a human-coded b…
📄 A multi-agent AI classroom based on dual-process reasoning hazards: a pilot with prospective physics teachers
> **Synthesis:** Tufino (2026) pilots a simulated multi-agent AI classroom where five AI students each enact distinct dual-process theory (DPT) reasoning hazards, giving prospective physics teachers r…
📄 WIP: Chat-Debugging: Large Language Model as a Hardware Debugging Assistant
> **Synthesis:** Work-in-progress exploring LLMs as debugging assistants for physical hardware lab courses. Proposes 'Chat-Debugging' where students interact with an LLM to diagnose circuit faults. Ai…
📄 NuclearDiffusion: Text-to-Image Foundation Models for Learning Nuclear Energy Concepts
> **Synthesis:** Systematic study of domain-adapted text-to-image models for nuclear engineering education. Fine-tunes Stable Diffusion on nuclear domain images; fine-tuned model achieves 78% domain a…
📄 Bridging Artificial Intelligence and Power Systems Education Using a Hands-On Executable Framework
> **An open, executable module library for engineering-grounded AI (EGAI) in power systems education lowers the entry barrier for newcomers, with a progressive difficulty ladder from DNN templates to …
📄 Advancing diagram-based reasoning in AI tutoring systems: a structural approach for STEM education
Presents **StructRAG**, a pattern-aware framework that improves how AI tutoring systems interpret **complex engineering diagrams** (circuit schematics, network topologies, block flowcharts) in STEM. C…
📄 Structured AI Demonstrations and Student LLM Use in Engineering Mechanics: Study Design and Preliminary Results
> **Shuang Geng, Helen Lallos-Harrell, Jiya Ashar, Thomas J. McKenna, Annwesa Dasgupta, Caleb Farny, Emma Lejeune** — arXiv preprint (2026).…
🏷️ Agentic AI in Education
> **Agentic AI** — AI systems that autonomously plan, execute, and adapt multi-step workflows to achieve learning goals, going beyond single-turn Q&A to act as persistent, goal-directed collaborators:…
🏷️ AI Tutoring
> **AI tutoring** — the use of AI (especially [[llm|LLMs]] and [[intelligent-tutoring|intelligent tutoring systems]]) to provide personalized, adaptive, scalable instructional support: conversational …
📄 Student Perceptions and Preferences Regarding AI-Generated Instructional Videos in Computing Education
Studies student perceptions of AI-generated instructional videos in computing education. Finds students value personalization and rapid production but express concerns about accuracy and the loss of i…
📄 Patterns of Learner-AI Interaction and Academic Performance in an Object-Oriented Programming Course
Examines how different forms of learner-AI interaction relate to learning outcomes in object-oriented programming courses. Identifies distinct patterns of GenAI use among students and correlates them …
📄 Is Solving Better Than Evaluating GenAI Solutions?
Randomized A/B crossover study (N=220) in a junior-level algorithms course comparing solution evaluation/critique tasks against traditional solution generation. Finds that evaluation-centered tasks pr…
📄 Technology-Enhanced Tabletop Exercises for Cybersecurity Education: Lessons Learned
Innovative practice paper examining the integration of technology-enhanced tabletop exercises into cybersecurity curricula. Addresses the gap between professional TTX practice and university adoption,…
📄 Designing Needs- and Attention-Aware AI Learning Tools for Engineering Education: Insights from Psychological Outcomes
Survey of 206 engineering students: AI chatbots provide greatest perceived benefit as relief from competence frustration, smaller benefits for autonomy, weakest for relatedness. Baseline motivational …
📄 The Easy Trap: Why LLMs Underestimate Misconception-Driven Difficulty
LLMs systematically underestimate the difficulty of misconception-driven items ('The Easy Trap'). While LLM ratings show moderate rank correlation with empirical student difficulty (rho=0.52-0.70), th…
📄 Archetypes or ability? Clustering for modelling student mathematical competence
On 119,034 students across 13 UK national exams, Bernoulli Mixture Models found few distinct skill clusters — overall ability dominates. A simple explainable model achieved 78% accuracy, competitive w…
📄 From Idea to Classroom in Days: Using "Vibe Coding" to Create a Programming Process Visualizer from IDE Activity Logs
Describes rapid development of a Thonny log visualizer using AI-assisted 'vibe coding' to make student programming processes visible to teachers. Piloted in a 160-student introductory programming cour…
📄 Multimodal Dialogue in STEM Education
> **The Multimodal Interference Effect** describes a systemic accuracy drop when LLMs encounter image-rich STEM problems: from ~96% on text-only physics problems to ~74% on multimodal ones. A simple t…
📄 The Effect of High-Frequency, Automatically-marked Formative Assessments on Student Outcomes in A-Level Sciences
This quasi-experimental mixed-methods longitudinal study (N=142) deploys a fully automated marking pipeline for handwritten mock examinations in A-Level sciences, removing the human-marking bottleneck…
🏷️ Open Source
> **Open-source** AI in education is studied in [[lata-ferpa-compliant-local-llm-autograder]], [[vismatic-secure-sandbox-cs-education]], and [[open-source]] (tag) pages: local open models address [[pr…
📄 Beyond Perspectives: A Trio-Ethnography of Interpretation Evolution in LLM-Supported Programming Education
This experience report introduces trio-ethnography — structured dialogue between two computing educators with differing teaching philosophies and one undergraduate CS student — as a method for surfaci…
📄 Representation Robustness under Executable Reasoning Constraints in Large Language Models for Mathematical Problem Solving
This study probes how sensitive [[llm]] mathematical problem solving is to the surface representation of an item — a question with direct bearing on [[assessment-validity]] when LLMs are used for scor…
📄 Assessment in Team Problem-Solving Exercises in Computing Education
Tabletop exercises (TTXs) let learner teams rehearse high-stakes workplace tasks such as cybersecurity incident response, but their open-ended, collaborative nature makes [[formative-assessment]] diff…
📄 Evaluating a Visual Query Tracer and Builder for Learning Declarative Logic Programming
Nemo Explain Visualizer (nev) is an interactive visual query tracer and builder for the Datalog reasoner Nemo. Although built for expert users, the authors conducted a qualitative study with 14 partic…
📄 EduGuard: A Safe RAG-Based LLM Tutor for Programming Education
EduGuard is a retrieval-augmented generation (RAG) tutoring framework that directly confronts the safety and pedagogical failures of unrestricted LLM tutors in introductory programming. Unrestricted t…
📄 Generative AI without guardrails can harm learning: Evidence from high school mathematics
This landmark field experiment is among the first randomized controlled trials to causally demonstrate that **unguarded generative-AI tutoring can harm skill acquisition**, not merely fail to help. Co…
📄 Benchmarking Multimodal Large Language Models for Scientific Visualization Literacy
Multimodal large language models (MLLMs) are increasingly used to interpret visualizations, yet most evaluations remain chart-centric and offer limited insight into **scientific visualization (SciVis)…
📄 Learning Engagement Assistant (LEA): Cross-Course Scalability and Classroom Evaluation of an Agentic AI Tutoring System
LEA (Learning Engagement Assistant) is an **agentic AI tutoring system** that couples course-specific retrieval-augmented generation (RAG) with structured [[knowledge-tracing]] / Knowledge Component (…
📄 Commenting with Copilot: A Taxonomy and Multi-Year Analysis of Student Code-Generation Specifications
Analyzes how students specify intended behavior in natural language to AI code tools (Copilot) across multiple years, deriving a taxonomy of code-generation specifications expressed through comments. …
📄 Adoption-Ready Project-Based Learning for Computing Education: The FORAP Framework and a Multi-Scale Project Portfolio
Presents FORAP (Framework for Organizing Reusable and Adaptable Project-Based Learning projects) and a portfolio of 14 adoption-ready PjBL packages for computing education. The framework addresses the…
📄 LLM-Generated Design Problems for Assessing Higher-Order Thinking in Project-Based Learning
Introduces 'design problems' (DPs): concise, scenario-based prompts that require applying knowledge in transfer contexts, generated with LLMs to assess higher-order thinking (HOT) in project-based lea…
📄 Q-Learning Lab: Teaching Reinforcement Learning Through Learner-Generated Trace Analysis
> Presents Q-Learning Lab, a single-file tool that makes the Bellman update concrete by letting undergraduates inspect how each value is computed and why actions are chosen, through learner-generated …
2026-07-14 · active-learning, higher-ed, reinforcement-learning, self-regulated-learning, scaffolding
📄 Why does AI unlock new possibilities in STEM education? A Bibliometric Analysis of Trends and Future Agenda
STEM education faces challenges in personalization and interdisciplinary integration. AI technology has brought new possibilities, but the mechanisms by which AI reshapes the STEM education ecosystem …
2026-07-09 · generative-ai, intelligent-tutoring, scaffolding, adaptive-learning, learning-analytics
📄 CogTax: A Four-Level Cognitive Taxonomy for Command-Line Computing Education
> **Manuel Alonso-Carracedo, Ruben Fernandez-Boullon, Pedro Celard, Francisco J. Rodriguez-Martinez, Lorena Otero-Cerdeira** — Universidade de Vigo, submitted 30 Jun 2026…
📄 Demystify, Use, Reflect, Assess (DURA): An Experience Report on LLM Integration in CS2
> **Margaret Ellis, Nikitha Donekal Chandrashekar, Sehrish Basir Nizamani, Mohammed Farghally, Jake O'Brien, Naren Ramakrishnan** — SIGCSE Virtual 2026, submitted 29 Jun 2026…
📄 Visualizing Engineering Fundamentals: Design of Mixed Reality and Physical Toolkits for Effective Learning
> **Mohammad Abu Nasir Rakib, Sharmin Akter, Eshwara Prasad Sridhar, Somik Biswas, Md Rassel Raihan, Mahmudur Rahman** — submitted 1 Jul 2026…
📄 To Tab or Not to Tab: Measuring Critical Engagement in AI Code Completion Tools Using Behavioral Signals and Attention Checks
Hutchison et al. (2026) develop and validate a method for measuring critical engagement with AI code completion tools in educational settings. Using behavioral signals (time-to-accept, edit distance f…
📄 From Prompting to Epistemic Proactivity: Temporal Trajectories of Student-AI Interaction in Mathematics Learning
Abdelghani, Kaiser & Murayama (2026) trace how middle and high school students' interactions with AI math tutors evolve over time, identifying a trajectory from superficial prompting ('tell me the ans…
📄 Exploring the Value of Diverse LLM Explanations in Introductory Programming
Bernstein, Denny, Leinonen et al. (2026) investigate whether providing students with multiple, diverse LLM-generated explanations of code (rather than a single 'best' explanation) improves comprehensi…
📄 Teaching Prompt-Based Programming with LLMs: A 45-Minute Lesson with Guided Practice for End-User Programmers
This study by Tran, Marwan & Price (2026) introduces and evaluates a 45-minute structured lesson on prompt-based programming, a new modality enabled by LLMs where users express computational goals thr…
📄 WIP: Bridging the Gap Between Instructional Design and Pedagogical Use: A Framework for Mathematics Educators
Castillo Ventura et al. (2026) address the gap between instructional design of digital mathematics resources and their pedagogical use in classrooms. Their work-in-progress framework translates learni…
📄 Confidence-Aware Automated Assessment of Student-Drawn Scientific Models
> **Luyang Fang, Yingchuan Zhang, Jongchan Park, Zhaoji Wang, Ping Ma, Xiaoming Zhai** (2026). arXiv cs.AI preprint…
2026-06-19 · automated-grading, formative-assessment, k-12, efficacy-study, multi-representational-tools
📄 Co-Creating Buildable and Open Social Robot Study Companions with University Students
> **Farnaz Baksh, Matevz B. Zorec, Feiazie Baksh, Karl Kruusamae** (2026). ICSR + ART 2026, London…
📄 Using AI in engineering education: a balancing act, driven by clear purpose
Based on a questionnaire of 100 higher-education engineering students and a critical literature review, examines how students use and perceive LLMs. Students value LLMs for writing support, conceptual…
📄 Improving Capstone Team Outcomes through Dynamic Skill Matching and Preference Alignment
Team-based projects are a cornerstone of engineering and computing courses, but unstructured team formation often leads to poor project outcomes due to misaligned student interests and inadequate skil…
2026-06-16 · intelligent-tutoring, edtech-platform, higher-ed, personalized-learning, learning-analytics
📄 Gender Differences in AI Literacy Workshop Outcomes and Deepfake Engagement
> Examines gender differences in AI literacy, safety awareness, and STEM career aspirations among Australian secondary students (Years 7, 8, 10; N=199) from two co-educational government schools after…
📄 Are LLM-based Chatbots Good Enough to Support Computer Science Students in Multiple-Choice Exercises?
Investigates LLM chatbots' performance on 70 MCQs for a university CS lecture on interactive visual data analysis, comparing with student performance. GPT-4o and GPT-5 significantly outperformed small…
📄 Simulating Students' Java Programming Errors with Large Language Models
This paper investigates whether [[llm|large language models]] can serve as scalable proxies for students by simulating realistic logical errors in code submissions. Using the CodeWorkout dataset of 74…
📄 The Empirically Grounded Adaptive Virtual Patient for Psychotherapy Training
**Angela Chen, Siwei Jin, Catherine Bao, Canwen Wang, Robert E. Kraut, Tongshuang Wu, Haiyi Zhu** — cs.CY, cs.HC The Adaptive Virtual Patient (AVP) is an LLM-driven simulated patient for psychotherapy…
📄 AI-Driven Analytics of Team-Teaching Talk: Acoustic Patterns across Experience, Cohorts and the Learning Design
**Yuchen Liu, Roberto Martinez-Maldonado, Riordan Alfredo, Paola Mejia-Domenzain, Dwi Rahayu, Sadia Nawaz** — AIED 2026 — cs.HC, cs.AI This paper presents an AI-based speech processing approach to ana…
📄 Profiling cognitive offloading in LLM-mediated synthesis writing: Volume vs. content
**Oleksandra Poquet, Mani Shankar Nanduri, Maria Ximena Salinas Loyer, Matthias Stadler, Michael Sailer, Jelena Jovanovic** — Accepted at EC-TEL 2026 — cs.HC, cs.ET This study compares two approaches …
📄 Reexamining the Cold-Start Problem in Knowledge Tracing Models and Implications for SafeInsights
**Jiayi Zhang, Ryan S. Baker, Debshila Basu Mallick, Cristina Heffernan, Neil Heffernan** — cs.HC This paper replicates and extends prior work on the cold-start problem in knowledge tracing — the chal…
📄 EduMirror: Modeling Educational Social Dynamics with Value-driven Multi-agent Simulation
**Jingzhe Lin, Hengbin Yu, Yongdan Zeng, Fangwei Zhong** — ICML 2026 — cs.MA, cs.CY EduMirror introduces a multi-agent simulator for studying educational social dynamics, addressing the dilemma that o…
📄 Report on CHIIR 2026 Workshop on Generative AI and Academic Search (GAI&AS)
**Yifan Liu, Jaime Arguello, Orland Hoeber, Chang Liu et al.** — cs.IR, cs.AI, cs.HC This report summarizes the CHIIR 2026 Workshop on Generative AI and Academic Search (GAI&AS), which examined how Ge…
📄 Hybrid E-Assessment in Higher Education: Semi-Automated Grading of Paper-Based Written Examinations
**Hartwig Grabowski, Michael Canz** — cs.AI, cs.CV, cs.CY This paper identifies the didactic narrowing caused by fully digital e-assessment (overuse of closed question formats) and proposes a hybrid a…
📄 Design and Implementation of a Real-time Multi-site Immersive Learning System Using Photon Fusion
> This paper develops a VR-based immersive learning environment using Photon Fusion that allows teachers and students to be present in the same virtual space regardless of physical locations. The syst…
📄 Reshaping Undergraduate Computer Science Education in the Generative AI Era
**Yi-Chieh Lee, Nattapat Boonprakong, Yugin Tan, Harold Soh et al.** — Workshop report from NUS-Google Workshops — cs.CY This white paper synthesizes findings from two international NUS-Google Worksho…
📄 Awareness of Technological Isomorphism: AI in Elementary Math
Introduces a novel core concept, **"Awareness of Technological Isomorphism,"** defined as a student's metacognitive realization that their own mathematical cognitive operations (observing trends, indu…
📄 LLM-Generated Feedback in Introductory Programming: A Classroom Study
Presents a **large-scale classroom study** (N=215 students, 6,693 submissions across 17 labs) deploying AI-generated feedback through a randomized protocol in an introductory Python programming course…
📄 VISMATIC: Secure Containerized Framework for Process-Oriented CS Education Monitoring
Addresses a critical tension in [[stem-education|CS education]]: the widespread adoption of generative AI makes it impossible to distinguish authentic student effort from AI code synthesis by evaluati…
📄 AI literacy-related domains and AI-TPACK readiness among preservice mathematics teachers: A factor-informed structural equation modelling study
> **Synthesis:** AI literacy-related domains and AI-TPACK readiness among preservice mathematics teachers: A factor-informed structural equation modelling study…
📄 GenAI as a runaway object in higher education: A socio-cultural view on AI-influenced academic practice in mathematics
> **Synthesis:** GenAI as a runaway object in higher education: A socio-cultural view on AI-influenced academic practice in mathematics…
🏷️ Curriculum Design
> **Curriculum Design** — the process of planning and structuring what is taught across courses, programs, and institutions, including learning objectives, content sequencing, assessment strategies, a…
📄 Learning after COVID-19 and the ICT career aspirations: Are students entering the AI era with weaker skills?
**Post-COVID ICT Career Aspirations** uses PISA 2018 and 2022 country-level data to investigate whether students entering the generative AI era have adequate educational foundations. Using a mixed-met…
📄 Generative AI and the marginalization of minoritized knowledges in higher education: the case of disability
This paper argues that [[generative-ai]] systems in [[higher-ed]] are not epistemically neutral — they actively marginalize non-hegemonic ways of knowing. Drawing on educational sciences, critical tec…
📄 How Students (Mis)understand Conditionals and Loops -- A Taxonomy
This paper presents a fine-grained taxonomy categorizing novice programmers' difficulties with reading and understanding control flow constructs — specifically conditionals (selection) and loops (iter…
📄 Codify: An Intelligent Socratic Tutoring System for Programming Education
📄 DOI: 10.32473/flairs.39.1.141554 Codify (also called AI Tutor) is an [[intelligent-tutoring]] system that leverages [[llm|LLMs]], competency tracking, and adaptive assessment to provide Socratic, d…
📄 Generative AI as a Design Variable: An Evidence-Centered Framework for Principled Governance in STEM Assessment
This paper proposes a principled framework grounded in Evidence-Centered Design (ECD) that treats [[generative-ai]] as a design variable within STEM assessment arguments rather than an external threat…
📄 Faster Completion, Less Learning: Generative AI Reduced Study Time on Math Problems and the Knowledge They Build
This landmark study provides the **first large-scale behavioral and outcome evidence** that [[generative-ai]] has fundamentally altered how students study and what they retain. Using a ten-year panel …
📄 Exploring the Effectiveness of Using LLMs for Automated Assessment of Student Self Explanations in Programming Education
This paper presents a rigorous empirical comparison between [[llm|LLM]]-based and semantic similarity methods for [[automated-grading|automated assessment]] of student self-explanations in programming…
📄 Automated Grading of Handwritten Mathematics Using Vision-Capable LLMs
Automated grading systems have enabled scalable assessment for many response types, but handwritten mathematics remains a barrier due to the complexity of multi-step solutions. Vision-capable large la…
📄 Creating Learning Scaffolds for Engineering Design Using Concept Catalyst
Singh, Mansi, and Riedl (2026) present Concept Catalyst, an LLM-powered tool designed to reduce K-12 teacher preparation time for Engineering Design Challenges. Unlike general-purpose chatbots, Concep…
📄 Evidence of a Cognitive Shift in AI Education: How Students Are Rethinking Human Intelligence?
This paper presents a striking longitudinal finding: as AI becomes a routine educational tool, students systematically revalue **human intelligence (HI) over artificial intelligence (AI)**. Drawing on…
📄 Faculty Orientations Shape Adoption of AI in Research and Teaching
📄 arXiv · [PDF](https://arxiv.org/pdf/2605.18140) A mixed-methods survey of 90 STEM faculty in the RCSA Cottrell community identified a coherent latent construct — **AI pedagogical orientation** — th…
📄 Towards SocratiCode: Designing a Generative AI-Based Programming Tutor for K-12 Students through a 4-Week Participatory Design Study
Socratic questioning, reflection prompts, misconception checks, and mandatory pauses produce better K-12 engagement than directive answer-giving AI tutors. SocratiCode demonstrates a participatory des…
📄 The Effects of Structured LLM-Generated Feedback on Programming Assignment Performance
LLM-generated feedback produces faster time-to-solution than compiler-only baseline; counterintuitively, less guided feedback showed stronger effects than more guided variants. This study provides emp…
📄 Computational Thinking Development in AI Agent Creation: A Mixed-Methods Study
> Computational Thinking Development in AI Agent Creation: A Mixed-Methods Study **Sun et al. (2026)** — Multiple institutions. arXiv cs.CY.…
📄 LaTA: A Drop-in, FERPA-Compliant Local-LLM Autograder for Upper-Division STEM Coursework
> LaTA: A Drop-in, FERPA-Compliant Local-LLM Autograder for Upper-Division STEM Coursework **Rodríguez (2026)** — Oregon State University. Submitted to Computers & Education.…
📄 A Framework for Institutional Change in the Age of AI
> Perl-Nussbaum & Finkelstein (2026) adapt institutional-change models to generative AI as an **arrival technology** — one that entered classrooms before pedagogical evidence existed — yielding a six-…
📄 Pedagogical Promise and Peril of AI: A Text Mining Analysis of ChatGPT Research Discussions in Programming Education
This book chapter presents a **text mining analysis** of how scholarly literature frames ChatGPT's role in programming education. Using term frequency analysis, phrase pattern extraction, and topic mo…
2026-05-13 · over-reliance, academic-integrity, hallucination-risk, feedback-loop, student-experience
📄 Preparing Students for AI-Powered Materials Discovery: A Workflow-Aligned Framework for AI Literacy, Equity, and Scientific Judgment
This paper presents a workflow-aligned framework for preparing students to use AI in materials discovery. The authors argue that in materials science, the limiting factor is no longer only algorithmic…
📄 When Should Teachers Control AI Generation for Mathematics Visuals?
Generative AI can help teachers rapidly create classroom-ready visual materials, particularly in mathematics where diagrams and visual representations must be **pedagogically meaningful and instructio…
📄 Human-AI Co-Mentorship in Project-Based Learning: A Case Study in Financial Forecasting
> A pedagogical model where human mentors and AI tools jointly support student learning in project-based contexts. Human mentors provide conceptual guidance, debugging, and problem formulation support…
📄 The Pedagogy of AI Mistakes: Fostering Higher-Order Thinking
> An instructional approach that deliberately leverages AI errors, hallucinations, and limitations as teaching tools to foster higher-order thinking. Rather than viewing AI mistakes as failures to be …
🏷️ AI from the Administrator Perspective
> Stub — pending source ingestion. AI adoption, strategy, and governance from the institutional administrator and leadership perspective.…
📄 Agentic Education with AI Coding Assistants
> AI coding assistants proliferate rapidly, but pedagogical frameworks for learning them remain scarce — a paradox at the heart of agentic coding education. > Using agentic AI workflows (Claude Code) …
📄 AI Tools Scaffolding Metacognition in STEM
> A bibliometric–systematic review of AI tools in STEM education: > Systematic review (2005–2025) mapping how AI tools scaffold and co-regulate metacognitive development in STEM classrooms through bib…
📄 Generate-Then-Validate: Question Generation for Education
> **Synthesis:** A novel generate-then-validate pipeline for educational question generation that reduces LLM hallucination by 62% compared to direct generation, validated on STEM datasets with 89% ac…
📄 NSMQ Riddles: A Benchmark of Scientific and Mathematical Riddles for Quizzing Large Language Models
> Boateng et al. (2026) introduce **NSMQ Riddles**, a benchmark of 1.8K scientific and mathematical riddles drawn from 11 years of Ghana's **National Science and Maths Quiz** — a live TV competition f…
📄 Programming Intelligent Tutoring Systems
> **SCRIPT** (Deriyeva, Dannath, Paassen, 2026) implements an intelligent tutoring system for **Python programming** in a German university context, filling a gap in prior ITS which rarely supported P…
📄 Quantum Education Intelligent Tutoring
> **From Prototype to Classroom** (Elhaimeur & Chrisochoides, 2026) describes a tutoring system for quantum computing that bridges the gap between dense mathematical formalism and limited qualified in…
🏷️ Automated Question Generation
Automated question generation leverages NLP and LLMs to create educational assessments at scale. Wei & Stamper (2025) introduced the **generate-then-validate** paradigm, reducing hallucination by 62% …
📄 Educational VLM Evaluation
> Benchmarking vision-language models (VLMs) not on their ability to solve problems, but on their ability to *support learners* — particularly struggling learners and those making errors. Traditional …
📄 Multimodal AI Tutoring in STEM
> When LLMs process STEM problems that require interpreting diagrams, graphs, or schematics alongside text, their accuracy degrades substantially. This effect is: > General-purpose LLMs achieve near-c…
🏷️ Socratic AI Dialogue
> Socratic dialogue — asking structured questions rather than providing answers — is one of the strongest pedagogical scaffolds for deep learning. When automated via AI, it produces measurable reasoni…
📄 Robotics and Artificial Intelligence in Education: Transformations, Challenges, and Future Directions
> **Synthesis:** White & Wu (2026) critically examine the integration of AI and robotics into education, arguing that while transformative potential exists at all levels, effective integration require…