Papers for

educational game designers

Papers whose findings have a practical use for this group, as judged from the abstract. Open a paper to read what it means in practice.

Persistent memory offers modest gains for AI drawing Chinese characters

Persistent Memory and Iterative Improvement in an LLM Agent for Chinese-Character Drawing

Abstract: Does persistent memory accumulated from previous attempts help an LLM agent solve new problems, and does memory design affect that benefit? We study programmatic Chinese-character drawing across five agent conditions attempting the same 668 items. Accumulated memory produces modest aggregate gains despite substantial growth in the memory stores: free-form notes improve first-attempt success by 4.6 percentage points, while a design combining free-form memory with reusable code improves it by 2.8 points. The two designs do not differ significantly overall, but the code bank shows a suggestive advantage on later, harder items. A separate post-hoc comparison finds a much larger improvement when the code-bank agent receives privileged, target-specific structural supervision. The agent can therefore exploit highly informative structural guidance, although the privileged per-item information does not establish what could have been learned from experience alone. These results suggest that memory design may affect where accumulated experience becomes useful, even when its average benefit is modest.

Fri 16 OctArtificial Intelligence
The gist
The paper investigates whether an AI agent that remembers its past attempts can improve its skill in drawing Chinese characters. The researchers tested different memory designs and found that keeping free-form notes helped the AI do better on its first try. Combining notes with reusable code also helped, especially on harder characters. When the AI got extra detailed instructions for each character, it improved much more, showing that clear guidance can be very helpful.
Open → 2610.24090v1

Children check AI suggestions differently based on agent style

"Do You Trust It... or Check It?": Exploring Children's Verification Behaviors in Game-Based Human-AI Collaboration

Abstract: Children are increasingly interacting with AI agents in learning and problem-solving contexts, where AI suggestions may appear fluent, helpful, and socially engaging. However, children may not always be able to judge whether such suggestions are accurate, incomplete, or misleading. This paper presents a game-based human-AI collaboration probe designed to examine how children verify AI suggestions during task-based interaction. The system embeds AI suggestions within a biological knowledge reasoning game and compares three Agent interaction styles: partner-like, tool-like, and dual-state Agent. Instead of treating trust as a static post-task attitude, this study focuses on children's situated verification behaviors, including acceptance, evidence checking, questioning, revision, and continued AI use. A preliminary evaluation with children aged 8-10 combined interaction logs, post-task ratings, and semi-structured interviews. The findings suggest that Agent style shaped children's engagement and response pathways: partner-like interaction tended to support direct questioning, while tool-like interaction was more associated with evidence seeking. Children generally viewed AI as useful but fallible, and their questioning behaviors varied in reasoning depth. The study contributes design insights for supporting children's critical, reflective, and evidence-based use of AI in collaborative tasks.

Thu 15 OctHuman-Computer Interaction
The gist
Children interact with AI helpers when playing a biology game, but they don’t always know if AI answers are right or wrong. The researchers studied how kids check or question AI advice depending on how the AI behaves—as a partner, a tool, or a mix of both. Kids tended to ask questions more when the AI acted like a partner, and looked for evidence more when it acted like a tool. The study shows ways to design AI that encourages kids to think carefully and check facts when working with AI.
Open → 2610.21233v1

Training AI to learn and explain complex game strategies like humans

Learning Explainable Representations of Complex Game-playing Strategies

Abstract: As part of learning to play complex games, human players develop develop abstractions for concepts and strategies of gameplay consistent with game rules to improve their performance. These concepts are applied to explain other players' actions, and to inform their own actions in-game. Understanding other players' strategies is a crucial part of such improvement, but requires time and effort. In this paper, we propose a strategy similar to human cognition for training RL agents to synthesize learned strategies and policies as executable procedures based on sequences of gameplay actions. We present methods to automatically learn such programs to play chess and to solve tasks in a grid-based environment. We show that the learned strategies produce effective actions, and can be learned from gameplay data.

Tue 6 OctArtificial IntelligenceMachine Learning
The gist
Playing complex games well means understanding and explaining strategies. The paper shows how to teach AI players to learn game strategies in a way similar to how humans think, by turning game moves into simple step-by-step actions or programs. These learned strategies help AI make good decisions in games like chess and grid puzzles. The researchers demonstrate that AI can learn these programs by just watching game plays.
Open → 2610.07638v1