3260 papers • 126 benchmarks • 313 datasets
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It is shown that networks with much lower capacity and without requiring data augmentation can exhibit performance comparable to the state of the art in standard 3D shape retrieval and classification benchmarks.
This work revisits the classical PointNet++ through a systematic study of model training and scaling strategies, and proposes PointNeXt, the next version of PointNets, which can be flexibly scaled up and outperforms state-of-the-art methods on both 3D classification and segmentation tasks.
The PointHop++ method is improved in two aspects: reducing its model complexity in terms of the model parameter number and ordering discriminant features automatically based on the cross-entropy criterion, which is essential for wearable and mobile computing.
The Multi-View Transformation Network (MVTN) is introduced that regresses optimal view-points for 3D shape recognition, building upon advances in differentiable rendering and can provide network robustness against rotation and occlusion in the 3D domain.
This work introduces the concept of the multi-view point cloud (Voint cloud), representing each 3D point as a set of features extracted from several view-points, and deploys a Voint neural network to learn representations in the Voint space.
This paper first collaborate CLIP and GPT to be a unified 3D open-world learner, named as Point-CLIP V2, which fully unleashes their potential for zero-shot 3D classification, segmentation, and detection, demonstrating the generalization ability for unified 3D open-world learning.
This study develops a general mechanism to increase point clouds neural networks robustness based on focus analysis and proposes a parameter-free refocusing algorithm that aims to unify all corruptions under the same distribution.
Some novel preprocessing techniques are proposed that have significantly increased the accuracy and at the same time decreased the training time of various classification algorithms for Alzheimer's Disease.
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