ExplorationBench 发布:用可验证的异星世界评测 AI 科学探索能力
ExplorationBench: Measuring AI Systems' Exploration in Verifiable Alien Worlds
这个评测思路挺聪明:造出规则完全陌生的异星世界,模型没法靠背题,只能真去探索。评测了 10 个系统的表现,结果有些意外。
ExplorationBench 是一项评测 AI 科学探索能力的基准,通过规则可执行、答案可精确验证的 Alien Worlds 避免模型靠预训练记忆解题。基准包含 AlienCode(31 个发现目标、70 个任务)和 AlienLogic(24 个发现目标、70 个任务)两个沙盒,每个沙盒提供有缺陷的手册、环境反馈和专用工具调用接口,系统需先探索再完成保留任务。团队评测了 10 个 AI 系统,发现最强的系统能习得并应用陌生规则,但不同轨迹表现差异大,持续探索可能出现停滞或倒退。
ExplorationBench: Measuring AI Systems' Exploration in Verifiable Alien Worlds
Scientific discovery begins where known problems end. There, AI systems must engage in exploration: framing hypotheses, designing experiments, and iterating on the results. However, evaluating this ability is difficult: (1) how to verify whether a genuinely new hypothesis holds, and (2) how to determine whether a system has discovered it through exploration or merely recalled related knowledge from pre-training data. To this end, we introduce ExplorationBench, which turns the wicked problem of evaluating scientific exploration into a concrete and tractable framework built on verifiable Alien Worlds: their rules are executable, so every answer can be checked exactly, and they conflict with familiar knowledge, so recall alone cannot solve the tasks. The benchmark contains two sandboxes, AlienCode (31 discovery targets, 70 tasks) and AlienLogic (24 discovery targets, 70 tasks). Each sandbox provides a flawed manual, task-specific environmental feedback, and a dedicated tool-call schema. Systems use these resources to explore the sandbox, then solve held-out tasks. We evaluate 10 AI systems and find that the strongest systems can acquire and apply unfamiliar rules, while performance varies substantially across trajectories and continued exploration can stall or reverse earlier gains. ExplorationBench represents a step towards AI systems that can acquire and apply genuinely new knowledge through exploration in unknown environments.