Doppio: A Dataset for Contactless Weight Estimation of Falling Particles
研究通过计算机视觉和深度学习方法,利用Doppio数据集解决了工业应用中粉末状落料无接触重量估计的问题。
研究通过计算机视觉和深度学习方法,利用Doppio数据集解决了工业应用中粉末状落料无接触重量估计的问题。
This study addresses the limitations of existing process planning methods, which often lack task logic constraints and struggle to exclude irrelevant actions. To overcome these challenges, we propose CEFITO, a novel approach that learns an action-conditioned representation space to reframe process planning as a test-time task-constrained optimization problem. By leveraging contrastive energy fields, CEFITO explicitly eliminates irrelevant actions, ensuring generated sequences adhere to logical constraints. Experimental results demonstrate that CEFITO achieves state-of-the-art accuracy on two mainstream benchmarks, significantly enhancing both logical consistency and dynamic adaptability in planning. This work establishes a new paradigm for complex task planning by integrating explicit constraint satisfaction into the generation process.
This study addresses the poor cross-domain generalization in monocular temporal 3D detection caused by learnable query overfitting. We propose the first domain generalization method for this task, introducing a Domain-Robust Anchor Generator (DRAG) and Temporal Refinement Identity Merging (TRIM) strategy to effectively decouple spatial distribution dependencies and optimize temporal associations. Furthermore, we establish a comprehensive cross-dataset generalization benchmark. Experimental results demonstrate that our approach improves zero-shot cross-domain NDS from 12.1% to 18.6% while simultaneously enhancing in-domain accuracy. By comprehensively outperforming existing baselines, this work significantly strengthens model robustness and generalization capabilities across diverse domains.
研究通过计算机视觉和深度学习方法,利用Doppio数据集解决了工业应用中粉末状落料无接触重量估计的问题。
This study addresses the limitations of existing process planning methods, which often lack task logic constraints and struggle to exclude irrelevant actions. To overcome these challenges, we propose CEFITO, a novel approach that learns an action-conditioned representation space to reframe process planning as a test-time task-constrained optimization problem. By leveraging contrastive energy fields, CEFITO explicitly eliminates irrelevant actions, ensuring generated sequences adhere to logical constraints. Experimental results demonstrate that CEFITO achieves state-of-the-art accuracy on two mainstream benchmarks, significantly enhancing both logical consistency and dynamic adaptability in planning. This work establishes a new paradigm for complex task planning by integrating explicit constraint satisfaction into the generation process.
This study addresses the poor cross-domain generalization in monocular temporal 3D detection caused by learnable query overfitting. We propose the first domain generalization method for this task, introducing a Domain-Robust Anchor Generator (DRAG) and Temporal Refinement Identity Merging (TRIM) strategy to effectively decouple spatial distribution dependencies and optimize temporal associations. Furthermore, we establish a comprehensive cross-dataset generalization benchmark. Experimental results demonstrate that our approach improves zero-shot cross-domain NDS from 12.1% to 18.6% while simultaneously enhancing in-domain accuracy. By comprehensively outperforming existing baselines, this work significantly strengthens model robustness and generalization capabilities across diverse domains.