Bangla Sentence Function Classification: Corpus Development, Model Benchmarking, and Interpretability
本文通过开发包含10,000句孟加拉语句子的语料库,并使用多种特征表示方法及异构集成模型,解决了孟加拉语文本句子功能分类缺乏基准资源的问题。
本文通过开发包含10,000句孟加拉语句子的语料库,并使用多种特征表示方法及异构集成模型,解决了孟加拉语文本句子功能分类缺乏基准资源的问题。
本文提出了一种结合注意力增强的深度特征提取和异质集成学习的青光眼检测框架,以解决特征优化、类别不平衡和预测鲁棒性问题。
研究通过审计方法探讨了医学影像智能代理在面对虚假发现时的行为,特别是当这些发现以不同方式呈现时,代理是否会改变其正确答案。
本文提出EMFE框架,通过数学特征提取和经典机器学习方法解决疟疾细胞分类问题,相比深度学习模型更轻量且可解释。
This study addresses the challenges of early diagnosis of chronic kidney disease (CKD) and the limitations imposed by data silos and privacy constraints in multi-institutional healthcare settings. To overcome these issues, the authors propose an interpretable federated learning framework that integrates explainable artificial intelligence (XAI) with a voting-based ensemble strategy. The approach combines Random Forest, AdaBoost, and XGBoost into a VotingClassifier and employs GridSearchCV for hyperparameter optimization, enabling collaborative model training across institutions without compromising patient privacy. Experimental results demonstrate that the resulting global model achieves an average accuracy of 99%, substantially enhancing early diagnostic performance. This work represents the first successful implementation of a CKD prediction system that simultaneously ensures privacy preservation and model interpretability, thereby validating the feasibility and advantages of interpretable federated learning in clinical applications.
本文通过开发包含10,000句孟加拉语句子的语料库,并使用多种特征表示方法及异构集成模型,解决了孟加拉语文本句子功能分类缺乏基准资源的问题。
本文提出了一种结合注意力增强的深度特征提取和异质集成学习的青光眼检测框架,以解决特征优化、类别不平衡和预测鲁棒性问题。
研究通过审计方法探讨了医学影像智能代理在面对虚假发现时的行为,特别是当这些发现以不同方式呈现时,代理是否会改变其正确答案。
本文提出EMFE框架,通过数学特征提取和经典机器学习方法解决疟疾细胞分类问题,相比深度学习模型更轻量且可解释。
This study addresses the challenges of early diagnosis of chronic kidney disease (CKD) and the limitations imposed by data silos and privacy constraints in multi-institutional healthcare settings. To overcome these issues, the authors propose an interpretable federated learning framework that integrates explainable artificial intelligence (XAI) with a voting-based ensemble strategy. The approach combines Random Forest, AdaBoost, and XGBoost into a VotingClassifier and employs GridSearchCV for hyperparameter optimization, enabling collaborative model training across institutions without compromising patient privacy. Experimental results demonstrate that the resulting global model achieves an average accuracy of 99%, substantially enhancing early diagnostic performance. This work represents the first successful implementation of a CKD prediction system that simultaneously ensures privacy preservation and model interpretability, thereby validating the feasibility and advantages of interpretable federated learning in clinical applications.