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Heterogeneous Adversarial Play in Interactive Environments

NeurIPS 2025 · Multi-agent systems and games › Human-AI and goal-conditioned · approach: Intrinsically motivated exploration · 0 citations (OpenAlex)

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Proposes HAP, an adversarial teacher-student curriculum learning framework in which a task-generating teacher and a student policy co-evolve via minimax-style updates, evaluated on Minigrid, CRAFT, and Crafter, plus supervised CurBench tasks and a human study.

Problem

Automated curriculum learning for multi-task RL typically uses static or unidirectional task selection; self-play frameworks assume symmetric agents, which does not fit asymmetric teacher-student settings.

Approach

Formalize teacher-student interaction as a zero-sum minimax game where a teacher (task selector, softmax over task logits conditioned on student return history) is rewarded for student failures while the student maximizes task return, with entropy regularization, cold-start warm-up, and probability lower bounds for stability.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use adversarial curriculum learning instead of DreamerV3HAP on Minigrid · Minigrid Generalsuccess rate: 0.493 -> 0.527Helped
Use adversarial curriculum learning instead of DreamerV3HAP on CRAFT · CRAFT Hardsuccess rate: 0.27 -> 0.31Helped
Use adversarial curriculum learning instead of DreamerV3HAP on Crafter · Crafter Generalsuccess rate: 0.697 -> 0.723Helped
Add the last 100 student history entries to the teacher (ablation)HAP · Minigrid Generalsuccess rate: 0.487 -> 0.527Helped
Add the last 100 student history entries to the teacher (ablation)HAP · Minigrid Hardsuccess rate: 0.11 -> 0.20Helped
Use a 1,000-entry history instead of the last 100 entries (ablation)HAP · Minigrid Generalsuccess rate: 0.527 -> 0.510Hurt
Add entropy regularization to the teacher objective (ablation)HAP · Minigrid Generalsuccess rate: 0.467 -> 0.527Helped
Add entropy regularization to the teacher objective (ablation)HAP · Minigrid Hardsuccess rate: 0.11 -> 0.20Helped
Use cold-start warm-up before teacher involvement (ablation)HAP · Minigrid Generalsuccess rate: 0.523 -> 0.527No clear effect
Enforce lower bounds on task selection probabilities (ablation)HAP · MinigridconvergenceHelped
Use asynchronous instead of synchronous teacher updates (ablation)HAP · Minigridstudent performanceNo clear effect

Surprising findings

Limitations

Experimental setup

Datasets: Minigrid CRAFT Crafter CIFAR-100 RTE (GLUE) CurBench

Benchmarks: Minigrid CRAFT Crafter CIFAR-100 RTE

Metrics: task success rate general weighted average score accuracy

Baselines: DQN A2C PPO SAC TD3 DreamerV3 TSCL EXP3 auto-curriculum Ordered curriculum TTCL SPL LRE

Builds on: PPO A2C TSCL EXP3 auto-curriculum Curbench

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