6611 papers
This paper introduces LinearSR, a holistic framework that enables stable and efficient photorealistic image super-resolution by overcoming linear attention's historical training instability and perception-distortion trade-off through novel strategies like ESGF, SNR-based MoE, and TAG, achieving state-of-the-art quality with exceptional computational efficiency.
The paper proposes PHyCLIP, a vision-language model that unifies hierarchical and compositional semantic structures by employing an -product metric on a Cartesian product of hyperbolic factors, thereby outperforming existing single-space approaches in various representation learning tasks.
This paper proposes a Co-learning framework (CSL) for incomplete multi-label image recognition that unifies semantic-aware feature learning and label recovery through a collaborative mechanism to simultaneously enhance feature discriminability and infer missing labels, achieving state-of-the-art performance on benchmark datasets.
UniFlow introduces a unified pixel flow tokenizer that resolves the inherent trade-off between visual understanding and generation by leveraging layer-wise adaptive self-distillation on pretrained encoders and a lightweight patch-wise pixel flow decoder, achieving superior performance across diverse benchmarks without sacrificing fidelity.
This paper introduces a novel two-stage self-supervised pre-training framework that enables end-to-end pixel-space generative modeling, achieving state-of-the-art performance on ImageNet with significantly improved efficiency and quality compared to both prior pixel-space methods and latent-space VAE-based counterparts.
Inspired by the fly olfactory circuit, Fly-CL is a bio-inspired framework that enhances pre-trained model-based continual representation learning by efficiently resolving multicollinearity to reduce training time while maintaining or exceeding state-of-the-art performance.
The paper introduces Mono4DGS-HDR, a novel two-stage Gaussian Splatting framework that reconstructs renderable 4D high dynamic range scenes from unposed monocular videos with alternating exposures, achieving superior quality and speed through pose-free initial learning, joint refinement, and temporal luminance regularization.
LightMem is a lightweight, efficient memory-augmented generation system inspired by the Atkinson-Shiffrin human memory model that utilizes a three-stage process of sensory filtering, topic-aware short-term consolidation, and offline long-term updates to significantly improve QA accuracy while drastically reducing token usage and API calls compared to existing baselines.
This paper introduces BioCAP, a biological foundation model that leverages synthetic, instance-specific captions generated by multimodal large language models to enhance species classification and text-image retrieval by capturing rich semantic traits beyond simple labels.
VoMP is a fast, feed-forward deep learning method that predicts spatially-varying volumetric mechanical properties (Young's modulus, Poisson's ratio, and density) for 3D objects by aggregating multi-view features through a Geometry Transformer and decoding them via a physically plausible material manifold learned from a novel, multi-source annotated dataset.
Concerto is a minimalist self-supervised learning framework that synergistically combines 2D-3D joint embedding and 3D intra-modal self-distillation to emerge superior spatial representations, achieving state-of-the-art performance in 3D scene perception and enabling open-world perception through language alignment.
This paper introduces ProMoE, a Mixture-of-Experts framework for Diffusion Transformers that overcomes the limitations of existing vision MoE approaches by employing a two-step router with explicit guidance to partition tokens by function and refine assignments via prototypes, thereby achieving state-of-the-art performance on ImageNet.
The paper introduces "Brain-IT," a novel framework utilizing a Brain Interaction Transformer to model functional brain-voxel clusters for predicting complementary semantic and structural image features, thereby achieving highly faithful fMRI-to-image reconstructions that surpass state-of-the-art methods while requiring significantly less training data.
This paper presents a novel method for generating high-resolution, high-quality talking face videos exclusively from a single speech input by utilizing a speech-conditioned diffusion model with statistical facial priors, region-enhanced lip synchronization, and a Transformer-based discrete codebook for end-to-end detail refinement.
The paper introduces ThinkMorph, a unified model fine-tuned on high-quality interleaved reasoning traces that treats text and image thoughts as complementary modalities, achieving significant performance gains on vision-centric benchmarks and demonstrating emergent multimodal intelligence such as adaptive reasoning and unseen visual manipulation skills.
This study reveals that medical image segmentation follows a geometry-limited power-law scaling behavior characterized by early performance saturation, which can be improved through topology-aware augmentation that enhances sample efficiency by expanding effective topological coverage without altering the fundamental scaling law.
This paper proposes VeCoR, a velocity contrastive regularization method that enhances Flow Matching models by introducing a two-sided attract-repel training scheme to prevent off-manifold errors and significantly improve image quality and stability, particularly in low-step and lightweight configurations.
This paper introduces UltraViCo, a training-free method that overcomes video length extrapolation limits in Diffusion Transformers by identifying and suppressing attention dispersion, thereby eliminating both periodic repetition and quality degradation to achieve up to 4x extrapolation with significant performance gains.
The paper proposes ReSAM, a point-supervised self-prompting framework that adapts the Segment Anything Model to remote sensing images through a Refine-Requery-Reinforce loop, achieving superior segmentation performance without requiring dense mask annotations.
This paper introduces InnoGym, the first benchmark and framework designed to evaluate the innovation potential of AI agents by measuring both the performance gains over existing solutions and the novelty of their methodologies across 18 real-world engineering and scientific tasks.