面向资源受限空间机器人的硬件加速实例分割方法及临界性分析
Hardware-Accelerated Instance Segmentation for Resource-Constrained Space Robotics with Criticality Analysis
浏览论文内容
中文总结 AI 辅助
针对月球机器人的弱光、算力有限及辐射故障问题,提出带AVIS校准与DPU部署的YOLO实例分割框架,结合临界性分析缓解故障,恢复69.8%精度损失并降31.7%全局临界性。
中文摘要 AI 辅助
自主月球任务需要在三个耦合约束下实现实时感知:极端弱光条件、有限星载计算资源,以及可能悄悄破坏推理过程的辐射诱发硬件故障。本文提出一种面向部署的、用于资源受限月球机器人的实例分割框架,在严格计算约束下同时解决量化校准和系统级故障暴露问题。首先,我们引入激活方差信息采样(Activation Variance Informative Sampling, AVIS),这是一种无标签校准策略,基于激活方差统计确定性选择校准样本。其次,我们将基于YOLO的分割模型部署在深度学习处理器单元(Deep Learning Processor Unit, DPU)上,通过架构修改减少CPU fallback路径,实现弱光条件下具有受限延迟的静态编译执行。我们进一步引入软件级临界性分析,以估计故障暴露并指导辐射受限操作下的缓解措施。在月球微型漫游车平台上,带偏差校正的AVIS恢复了69.8%的量化诱导精度损失,同时实现309毫秒推理延迟和5.7瓦功耗;针对性缓解措施将全局临界性降低了31.7%。结果证明了一种集成方法,为空间部署约束下的可靠、安全AI感知框架提供了蓝图。
英文摘要
Autonomous lunar missions require real-time per- ception under three coupled constraints: extreme low-light conditions, limited onboard compute, and radiation-induced hardware faults that can silently corrupt inference. We present a deployment-oriented instance segmentation framework for resource-constrained lunar robotics that jointly addresses quan- tization calibration and system-level fault exposure under strict compute constraints. First, we introduce Activation Variance Informative Sampling (AVIS), a label-free calibration strategy that deterministically selects calibration samples based on activation variance statistics. Second, we deploy a YOLO-based segmentation model on a Deep Learning Processor Unit (DPU) with architectural modifications that reduce CPU fallback paths and enable statically compiled execution with bounded latency in low-lighting conditions. We further introduce a software-level criticality analysis to estimate fault exposure and guide mitigation under radiation-constrained operation. On a lunar micro-rover platform, AVIS with bias correction recovers 69.8% of quantization-induced accuracy loss while achieving 309 ms inference latency and 5.7 W power consumption. Targeted mitigation reduces global criticality by 31.7%. The results demonstrate an integrated approach and a blueprint for a reliable and safe AI perception framework under space deployment constraints.
发表机构
- German Research Center for Artificial Intelligence GmbH (DFKI)(德国人工智能研究中心)
- University of Bremen(不来梅大学)
机构由 AI 辅助整理,请以论文原文为准。