Evaluating Explanation Methods by the Predictors They Induce
本文提出一种通过重建预测来评估机器学习模型解释方法的新测试,适用于PDP、ALE、SHAP和LIME等,并在不同数据集上验证了其有效性。
本文提出一种通过重建预测来评估机器学习模型解释方法的新测试,适用于PDP、ALE、SHAP和LIME等,并在不同数据集上验证了其有效性。
该研究通过提出Transformer-Within-Transformer方法,解决了Vision Transformers中的计算冗余问题,减少了参数数量和推理计算量,同时保持了模型性能。
研究了周期性传感器环上任意观测掩模对高斯过程重建后验协方差、傅里叶模式耦合和归一化后验迹的影响,通过分析不同掩模几何形状导致的不同效果。
研究使用深度学习方法对急性缺血性脑卒中进行分割,通过对比不同输入配置和模型架构,发现基于DWI的基线nnU-Net模型无需预处理即可实现快速准确的病灶分割。
This study addresses the misalignment between instance detection and voxel-level metrics, as well as the frequent miss-detection of small lesions in stroke segmentation. We propose a Volume-Conditioned Adaptive Post-processing (VCAP) scheme alongside the Viola2Plus architecture. By employing dynamic threshold adjustment to bridge detection gaps and integrating resolution-aware attention with a dual-architecture ensemble, our method significantly enhances small target detectability. Notably, results demonstrate that optimized post-processing contributes more to instance detection performance than architectural modifications alone. Five-fold cross-validation achieved a Dice score of 0.651 and a Lesion-F1 of 0.614, with a 3.7% improvement in small lesion detection rate, effectively mitigating the limitations of conventional evaluation metrics.
本文提出一种通过重建预测来评估机器学习模型解释方法的新测试,适用于PDP、ALE、SHAP和LIME等,并在不同数据集上验证了其有效性。
该研究通过提出Transformer-Within-Transformer方法,解决了Vision Transformers中的计算冗余问题,减少了参数数量和推理计算量,同时保持了模型性能。
研究了周期性传感器环上任意观测掩模对高斯过程重建后验协方差、傅里叶模式耦合和归一化后验迹的影响,通过分析不同掩模几何形状导致的不同效果。
研究使用深度学习方法对急性缺血性脑卒中进行分割,通过对比不同输入配置和模型架构,发现基于DWI的基线nnU-Net模型无需预处理即可实现快速准确的病灶分割。
This study addresses the misalignment between instance detection and voxel-level metrics, as well as the frequent miss-detection of small lesions in stroke segmentation. We propose a Volume-Conditioned Adaptive Post-processing (VCAP) scheme alongside the Viola2Plus architecture. By employing dynamic threshold adjustment to bridge detection gaps and integrating resolution-aware attention with a dual-architecture ensemble, our method significantly enhances small target detectability. Notably, results demonstrate that optimized post-processing contributes more to instance detection performance than architectural modifications alone. Five-fold cross-validation achieved a Dice score of 0.651 and a Lesion-F1 of 0.614, with a 3.7% improvement in small lesion detection rate, effectively mitigating the limitations of conventional evaluation metrics.