🧮 Scientific Computing¶
📷 CVPR2026 · 4 paper notes
- Continuous Exposure-Time Modeling for Realistic Atmospheric Turbulence Synthesis
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This paper proposes an exposure-time-dependent modulation transfer function (ET-MTF) that treats exposure time as a continuous variable, and constructs a large-scale synthetic turbulence dataset ET-Turb (5,083 videos, 2 million frames), significantly improving the generalization of turbulence restoration models on real-world data.
- EHETM: High-Quality and Efficient Turbulence Mitigation with Events
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This paper proposes EHETM, the first method to leverage the microsecond temporal resolution of event cameras to overcome the accuracy–efficiency bottleneck of conventional multi-frame turbulence mitigation (TM). Two key physical phenomena are identified—polarity alternation of turbulence-induced events correlated with image gradients, and spatiotemporally coherent "event tubes" formed by dynamic objects—motivating two complementary modules: a polarity-weighted gradient module and an event tube constraint module. EHETM reduces data overhead by 77.3% and system latency by 89.5%, with particularly substantial gains over the state of the art in dynamic-object scenes.
- NESTOR: A Nested MOE-based Neural Operator for Large-Scale PDE Pre-Training
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NESTOR, a nested MoE-based neural operator, is proposed to capture global features across different PDE types via image-level MoE and local spatial correlations within physical fields via token-level Sub-MoE. The model is pre-trained on 12 PDE datasets and effectively transferred to downstream tasks.
- PhysSkin: Real-Time and Generalizable Physics-Based Skin Simulation
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PhysSkin is a generalizable physics-informed framework that learns continuous skinning weight fields directly from static 3D geometry via a neural skinning field autoencoder, coupled with a physics-informed self-supervised learning strategy (energy minimization + smoothness + orthogonality constraints), enabling real-time physics-based animation that generalizes across shapes and discretizations without any annotated data or simulation trajectories.