RoboMemArena: A Comprehensive and Challenging Robotic Memory Benchmark
Summary
RoboMemArena introduces a large-scale benchmark for evaluating robotic memory across 26 complex tasks with real-world validation, alongside PrediMem, a dual-system vision-language-action model that improves memory management through predictive coding.
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Paper page - RoboMemArena: A Comprehensive and Challenging Robotic Memory Benchmark
Source: https://huggingface.co/papers/2605.10921 Authors:
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Abstract
RoboMemArena presents a large-scale robotic memory benchmark with diverse tasks and real-world evaluation, while PrediMem demonstrates improved memory management through a dual-system vision-language architecture with predictive coding.
Memory is a critical component of robotic intelligence, as robots must rely on past observations and actions to accomplish long-horizon tasks in partially observable environments. However, existing robotic memory benchmarks still lack multimodal annotations for memory formation, provide limited task coverage and structural complexity, and remain restricted to simulation withoutreal-world evaluation. We address this gap with RoboMemArena, a large-scale benchmark of 26 tasks, with average trajectory lengths exceeding 1,000 steps per task and 68.9% of subtasks being memory-dependent. The generation pipeline leverages avision-language model(VLM) to design and compose subtasks, generates full trajectories throughatomic functions, and providesmemory-related annotations, including subtask instructions and native keyframe annotations, while paired real-world memory tasks support physical evaluation. We further design PrediMem, adual-system VLAin which a high-level VLM planner manages amemory bankwith recent andkeyframe buffersand uses apredictive coding headto improve sensitivity to task dynamics. Extensive experiments on RoboMemArena show that PrediMem outperforms all baselines and provides insights into memory management, model architecture, and scaling laws for complex memory systems.
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