8960 papers
This paper proposes a Pareto-guided optimization framework for medical image segmentation that employs a region-wise curriculum strategy and a fuzzy labeling mechanism to prioritize learning from certain regions, thereby stabilizing gradients and guiding the model toward Pareto-optimal solutions that outperform traditional methods in handling boundary ambiguity.
The paper proposes DVLA-RL, a novel few-shot learning framework that leverages reinforcement learning gating to dynamically integrate progressive dual-level vision-language alignments—ranging from fine-grained attributes to holistic descriptions generated by large language models—thereby achieving state-of-the-art performance across diverse benchmarks.
This paper proposes a novel all-optical computing framework using diffractive neural networks to perform energy-efficient, real-time semantic segmentation and lane detection for autonomous driving, demonstrating its effectiveness on the CityScapes dataset and in diverse simulated driving scenarios.
GOT-Edit introduces an online cross-modality model editing framework that integrates 3D geometric cues into generic object tracking by leveraging a pre-trained Visual Geometry Grounded Transformer and null-space constraints, thereby significantly enhancing robustness against occlusion and distractors while preserving semantic discrimination.
The paper introduces UI-Venus-1.5, a unified end-to-end GUI agent family featuring 2B, 8B, and 30B-A3B variants that leverage mid-training, online reinforcement learning, and model merging to achieve state-of-the-art performance on diverse benchmarks and robust real-world navigation across Chinese mobile apps.
This study systematically evaluates geospatial foundation models (Prithvi-EO-2.0 and TerraMind) for ecological mapping, demonstrating their consistent superiority over traditional baselines across forest trait estimation, land cover mapping, and peatland detection while highlighting the critical importance of dataset alignment and high-resolution inputs for optimal performance.
DriveMamba proposes a task-centric, scalable state space model for efficient end-to-end autonomous driving that replaces the sequential Transformer-based paradigm with a unified Mamba decoder featuring linear-complexity operators and bidirectional trajectory-guided scanning to overcome information loss, cumulative errors, and computational inefficiencies in handling spatiotemporal inputs.
Sim2Radar is an end-to-end framework that bridges the radar sim-to-real gap by synthesizing physics-based mmWave data from single-view RGB images using VLM-guided material inference, thereby significantly improving downstream 3D radar perception through transfer learning.
This paper introduces HERO, a novel paradigm for humanoid robots that combines large vision models for open-vocabulary scene understanding with a residual-aware end-effector tracking policy trained in simulation, enabling robust and generalizable visual loco-manipulation of diverse objects in real-world environments.
This study presents the first 10m-resolution tree crop map for South America, revealing that existing regulatory definitions often misclassify established smallholder agroforestry as forest, thereby highlighting the need for high-resolution data to ensure equitable and effective zero-deforestation policies.
The paper proposes EAGLE, a tuning-free framework that leverages expert model outputs to guide Multimodal Large Language Models toward accurate and interpretable industrial anomaly detection without requiring parameter updates, achieving performance comparable to fine-tuned methods.
This paper proposes a probability-invariant random walk framework that classifies individualized gyral folding-based cortical similarity networks without requiring explicit node alignment, thereby overcoming anatomical heterogeneity to achieve robust diagnosis of Alzheimer's disease and Lewy body dementia.
The paper introduces MIRROR, a framework that enhances Vision-Language Models' reasoning and reduces hallucinations by implementing a closed-loop iterative process of drafting, critiquing, and revising answers through explicit region-based visual verification, supported by the newly constructed ReflectV dataset.
This paper introduces SymPL, a framework that reformulates challenging allocentric spatial reasoning tasks into structured symbolic-layout representations, thereby significantly enhancing the performance and robustness of vision-language models in both allocentric and egocentric settings.
The paper introduces TraceVision, a novel end-to-end vision-language model that integrates trajectory-aware spatial understanding through a Trajectory-aware Visual Perception module and a specialized training pipeline, achieving state-of-the-art performance in tasks like captioning, localization, and segmentation by simulating human visual attention trajectories.
This paper proposes a dual-teacher contrastive distillation framework that leverages both multispectral and optical vision foundation model teachers to enable efficient, state-of-the-art cross-modal representation learning for multispectral Earth observation data without compromising performance on optical inputs.
To address the lack of large-scale data for studying video reasoning, this paper introduces the Very Big Video Reasoning (VBVR) suite, comprising a massive dataset of over one million video clips across 200 tasks and a verifiable benchmark, which together enable the first large-scale scaling study revealing early signs of emergent generalization in video reasoning models.
Mobile-O is a compact, unified vision-language-diffusion model featuring a novel Mobile Conditioning Projector that enables efficient, real-time multimodal understanding and generation directly on mobile devices, achieving competitive performance with significantly faster inference speeds compared to existing models.
This paper proposes VISION-ICE, an AI framework utilizing 3D Convolutional Neural Networks to analyze intracardiac echocardiography videos for automated, real-time localization of arrhythmia origins, achieving 66.2% accuracy and demonstrating potential to streamline electrophysiological procedures.
OptimusVLA is a dual-memory augmented Vision-Language-Action model that enhances robotic manipulation efficiency and robustness by replacing isotropic noise with a global prior memory for faster inference and incorporating a local consistency memory to ensure temporal coherence, achieving superior performance across simulation and real-world benchmarks compared to state-of-the-art baselines.