CADWorld: Computer-Use Benchmark for Long-Horizon Computer-Aided Design
为解决现有基准对专业工程工作流程覆盖不足的问题,通过引入CADWorld基准来评估计算机使用代理在FreeCAD中长交互周期内的表现。
为解决现有基准对专业工程工作流程覆盖不足的问题,通过引入CADWorld基准来评估计算机使用代理在FreeCAD中长交互周期内的表现。
本文提出了一种新的正则化多元函数主成分分析框架,通过函数奇异值分解实现对主成分及其得分的同时正则化,并引入稀疏惩罚提高解释性。
研究针对生物医学AI论文因模型退役导致的可重复性风险问题,通过分析2022-2026年间的相关文献及模型生命周期数据提出解决方案。
为解决数字身份验证系统评估难题,本文提出IDSpace文档生成器,通过模型引导贝叶斯优化、解耦用户指定元数据与自调参数及支持多种文档类型的方法,提高了评估一致性。
This study addresses the clinical need for efficient and accurate intraoperative assessment of breast cancer margins, where high-magnification imaging is often limited by small field-of-view and slow acquisition. For the first time, it systematically compares 4× and 10× MUSE fluorescence imaging performance, integrating Local Binary Pattern (LBP) texture analysis with Vision Transformer (ViT)-based deep learning for tissue classification. Results demonstrate that 4× imaging achieves 96.30% sensitivity, 100% specificity, and 98.18% accuracy under the ViT model, while LBP yields consistent 96.67% accuracy across both magnifications. These findings indicate that low-magnification imaging can deliver diagnostic accuracy comparable to high-magnification approaches while substantially improving field-of-view coverage and imaging speed, thereby enhancing practicality in intraoperative settings.
为解决现有基准对专业工程工作流程覆盖不足的问题,通过引入CADWorld基准来评估计算机使用代理在FreeCAD中长交互周期内的表现。
本文提出了一种新的正则化多元函数主成分分析框架,通过函数奇异值分解实现对主成分及其得分的同时正则化,并引入稀疏惩罚提高解释性。
研究针对生物医学AI论文因模型退役导致的可重复性风险问题,通过分析2022-2026年间的相关文献及模型生命周期数据提出解决方案。
为解决数字身份验证系统评估难题,本文提出IDSpace文档生成器,通过模型引导贝叶斯优化、解耦用户指定元数据与自调参数及支持多种文档类型的方法,提高了评估一致性。
This study addresses the clinical need for efficient and accurate intraoperative assessment of breast cancer margins, where high-magnification imaging is often limited by small field-of-view and slow acquisition. For the first time, it systematically compares 4× and 10× MUSE fluorescence imaging performance, integrating Local Binary Pattern (LBP) texture analysis with Vision Transformer (ViT)-based deep learning for tissue classification. Results demonstrate that 4× imaging achieves 96.30% sensitivity, 100% specificity, and 98.18% accuracy under the ViT model, while LBP yields consistent 96.67% accuracy across both magnifications. These findings indicate that low-magnification imaging can deliver diagnostic accuracy comparable to high-magnification approaches while substantially improving field-of-view coverage and imaging speed, thereby enhancing practicality in intraoperative settings.