Occupancy Network-Guided Autonomous Robotic Partial Nephrectomy
本文介绍了一种基于条件占用网络的视觉引导自主系统,用于解决软组织癌症手术中因组织变形或切割导致的感知和适应问题,实现完整的肿瘤切除。
本文介绍了一种基于条件占用网络的视觉引导自主系统,用于解决软组织癌症手术中因组织变形或切割导致的感知和适应问题,实现完整的肿瘤切除。
该研究通过集成视频-AI平台,利用动作分割、物体检测与跟踪及大语言模型等技术,为显微外科手术训练提供实时反馈,解决专家评审难以规模化的问题。
为解决助听器应用中低延迟目标说话人识别问题,采用两步法:先用低延迟流式二值化音频,再验证目标说话人。
Current AI models exhibit insufficient performance in surgical image analysis tasks such as neurosurgical instrument detection, falling short of clinical requirements. This study systematically evaluates the performance of state-of-the-art billion-parameter vision-language models—representative of 2026-level advancements—in surgical instrument detection scenarios and conducts scaling experiments varying model size and training duration. The findings reveal that merely increasing model scale or computational resources yields limited performance gains; instead, non-scalable factors such as annotation quality and domain-specific adaptation play a decisive role. Even with cutting-edge architectures and extensive training resources, improvements in instrument detection accuracy remain marginal, and consistent performance bottlenecks persist across diverse model architectures.
本文介绍了一种基于条件占用网络的视觉引导自主系统,用于解决软组织癌症手术中因组织变形或切割导致的感知和适应问题,实现完整的肿瘤切除。
该研究通过集成视频-AI平台,利用动作分割、物体检测与跟踪及大语言模型等技术,为显微外科手术训练提供实时反馈,解决专家评审难以规模化的问题。
为解决助听器应用中低延迟目标说话人识别问题,采用两步法:先用低延迟流式二值化音频,再验证目标说话人。
Current AI models exhibit insufficient performance in surgical image analysis tasks such as neurosurgical instrument detection, falling short of clinical requirements. This study systematically evaluates the performance of state-of-the-art billion-parameter vision-language models—representative of 2026-level advancements—in surgical instrument detection scenarios and conducts scaling experiments varying model size and training duration. The findings reveal that merely increasing model scale or computational resources yields limited performance gains; instead, non-scalable factors such as annotation quality and domain-specific adaptation play a decisive role. Even with cutting-edge architectures and extensive training resources, improvements in instrument detection accuracy remain marginal, and consistent performance bottlenecks persist across diverse model architectures.