Note: Papers are organized by research direction. * indicates equal contribution; # indicates corresponding author.
Direction 1: AI for Science (AI4Science)
Focusing on medical diagnosis, bioinformatics, computational biology, and intelligent healthcare.
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High-resolution phage-host assignment through key proteins using large language models |
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Interpretable Dynamic Directed Graph Convolutional Network for Multi-Relational Prediction of Missense Mutation and Drug Response |
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Adversarial Learning under Hybrid Perturbations for Robust Acute Lymphoblastic Leukemia Classification |
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Comprehensive Assessment of BERT-Based Methods for Predicting Antimicrobial Peptides |
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Hybrid Bayesian Optimization-based Graphical Discovery for Methylation Sites Prediction |
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A Variational AutoEncoder-based Relational Model for Cost-effective Automatic Medical Fraud Detection |
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On-site Colonoscopy Auto-Diagnosis using Smart Internet of Medical Things |
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Stroke Risk Prediction with Hybrid Deep Transfer Learning Framework |
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Explainable CNN With Fuzzy Tree Regularization for Respiratory Sound Analysis |
Direction 2: Embodied Intelligence & Robotics
Focusing on crack detection, UAV autonomous systems, robot localization, and visual perception.
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Attack-inspired Calibration Loss for Calibrating Crack Recognition |
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Mind Marginal Non-crack Regions: Clustering-inspired Representation Learning for Crack Segmentation |
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Emergency UAV Landing on Unknown Field Using Depth-Enhanced Graph Structure |
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The Devil is in the Crack Orientation: A New Perspective for Crack Detection |
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Geometry-Aware Guided Loss for Deep Crack Recognition |
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Integrated Air-Ground Vehicles for UAV Emergency Landing based on Graph Convolution Network |
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Multi-task Gaussian Process Classification-based Collaborative Map Fusion Using Air-Ground Robotic System |
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GP-Localize: Persistent Mobile Robot Localization using Online Sparse Gaussian Process Observation Model |
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Multi-Robot Active Sensing of Non-Stationary Gaussian Process-Based Environmental Phenomena |
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Decentralized Active Robotic Exploration and Mapping for Probabilistic Field Classification in Environmental Sensing |
Direction 3: Data-Efficient Learning & Trustworthy Machine Learning
Focusing on distributed/federated learning, active learning, privacy preservation, and Gaussian process models.
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F2GP: Privacy-Preserving Federated & Fast Gaussian Process Models With Support Set Optimization |
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Secure Distributed Sparse Gaussian Process Models using Multi-key Homomorphic Encryption |
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When Active Learning Meets Implicit Semantic Data Augmentation |
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Scalable Variational Bayesian Kernel Selection for Sparse Gaussian Process Regression |
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Gaussian Process Decentralized Data Fusion and Active Sensing for Spatiotemporal Traffic Modeling and Prediction in Mobility-on-Demand Systems |
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Parallel Gaussian Process Regression for Big Data: Low-Rank Representation Meets Markov Approximation |
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Parallel Gaussian Process Regression with Low-Rank Covariance Matrix Approximations |
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Gaussian Process-Based Decentralized Data Fusion and Active Sensing for Mobility-on-Demand System |
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Decentralized Data Fusion and Active Sensing with Mobile Sensors for Modeling and Predicting Spatiotemporal Traffic Phenomena |