Research platform overview

AI-Enabled Chess Training

A custom chess-training platform used to study when AI assistance supports learning and when on-demand help weakens the effort that builds skill.

The field experiment

A chess-training environment for studying AI help, effort, and lasting skill.

The platform was built for a 12-week field experiment with more than 200 chess-club students. Participants trained on the same custom app, which combined adaptive engine games, AI-generated tips, chess quizzes, test games, and progress dashboards.

The central experimental question was simple but consequential: what happens when learners can request solution-revealing AI help on demand, in addition to the same automated alert tips everyone receives? The answer matters because assistance that improves immediate performance can also replace the productive struggle needed for long-term learning.

12 weeks Intensive chess training
200+ Chess-club students
2 conditions Same alerts; optional move-reveal button
30% vs. 64% Learning gains after training

The platform

What participants actually used

The live research app required authenticated student and coach accounts. This public version preserves the platform context, intervention logic, and paper screenshots so the study can be shared without exposing the original backend or participant data.

Training game screen with chess board, move history, timer, and AI tip board
Training games placed the chess board, move history, timer, and tip board in the same workspace so students could practice while the platform recorded assistance and engagement data.

Train / play

Adaptive practice with instrumented AI feedback

Students played against a chess engine calibrated to their level. The app identified critical positions where an optimal move existed, delivered automated alert tips in both conditions, and tracked whether students in the self-regulated condition requested additional move-reveal help.

Study interfaces

Progress, competition, quizzes, and feedback

Beyond training games, the platform gave students a profile page, leaderboard, chess quizzes, and post-quiz feedback. These paper figures show how learning activity, rankings, and knowledge checks were presented during the field deployment.

Paper screenshot of the student profile interface with quiz scores and training history
Profile pages summarized completed games, quiz history, tip use, and move quality over time.
Paper screenshot of the leaderboard interface
The leaderboard made progress visible by ranking students on engagement and performance metrics.
Paper screenshot of a chess quiz with multiple board positions
Quizzes asked students to compare positions and answer chess-knowledge questions outside assisted game play.
Paper screenshot of post-quiz feedback with score and explanation
Post-quiz feedback gave students their score, the correct answer, and an explanation for the quiz position.

Experimental conditions

Same automated alert tips, one additional button

Alongside their regular coach-led training, students were randomly assigned to two conditions that used the same platform, the same engine calibration, the same incentives, and the same automated alert tips. Both conditions received alerts and post-move feedback at algorithmically identified positions. The self-regulated condition added one option: a button that could reveal the best move on demand.

Condition 1

System-regulated

(alert tips only)

No agency over AI assistance provision

Condition 2

Self-regulated

(alert tips + button to get on-demand move-reveal tips)

Agency over AI assistance provision (when and how often to click the button)

Alert tips and feedback

Guidance before and after the student's move

These automated alert tips were present in both experimental conditions. They signaled that the position contained an important opportunity. After the student moved, feedback either confirmed that the optimal move was found or revealed the missed optimal move with an explanation.

Paper screenshot of an alert tip saying there is an optimal move here
Alert tips pointed students to a critical position without giving away the solution.
Paper screenshot of feedback confirming the student found the optimal move
Correct-move feedback reinforced the decision when students found the optimal move.
Paper screenshot of feedback revealing a missed optimal move
Missed-move feedback revealed the optimal move and explained why it mattered.

Move-reveal tips

The extra on-demand help in the self-regulated condition

This was the only intervention difference. Self-regulated students kept the same automated alert tips and feedback, but also had a button that could reveal the best move on demand. This added control made assistance easier to access, but also made it easier to skip productive search.

Paper screenshot of an on-demand move-reveal tip showing the best move and explanation
Move-reveal tips disclosed the recommended move, the idea behind it, and a suggested continuation.
Paper screenshot of the self-regulated interface with automatic alert tip and tip button
Self-regulated students saw automatic alerts and could still request additional solution-level help.

Key findings

More control over AI help did not produce more learning

Both groups improved, but students with on-demand access to AI help learned less than half as much as students whose assistance was system-regulated.

64%

System-regulated learning gain

Students whose help was governed by the platform made substantially larger gains after the 12-week training period.

30%

On-demand learning gain

Students who could request extra AI help whenever they wanted improved by less than half as much, despite having more access to assistance.

Productive struggle was displaced

The learning loss was concentrated when students requested help on tasks inside their Zone of Proximal Development: difficult enough to require effort, but still achievable with the right support.

Engagement fell as reliance rose

Students with on-demand help completed fewer training games, reported lower accomplishment, and increased their AI requests over time even while recognizing the risk of over-reliance.