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Taming Heavy-Tailed Losses in Adversarial Bandits and the Best-of-Both-Worlds Setting

Neural Information Processing Systems

Consider the multi-armed bandits (MAB) problem (Auer et al., 2002a,b), which is a useful framework Typically, the losses are assumed to have a support on a bounded interval (e.g., Moreover, while the former ones enjoy a logarithmic regret (i.e., These performance discrepancies motivated the study of the Best-of-Both-W orlds (BOBW) setting.


Deep Neural Networks with Box Convolutions

Neural Information Processing Systems

Due to its ability to integrate information over large boxes, the new layer facilitates long-range propagation of information and leads to the efficient increase ofthe receptivefields ofnetwork units.


Average Case Column Subset Selection for Entrywise $\ell_1$-Norm Loss

Neural Information Processing Systems

Nevertheless, we show that under certain minimal and realistic distributional settings, it is possible to obtain a (1+ null)-approximation with a nearly linear running time and poly (k/null) + O ( k log n) columns. Namely, we show that if the input matrix A has the form A = B + E, where B is an arbitrary rank-k matrix, and E is a matrix with i.i.d.


Flow-based Feature Fusion for Vehicle-Infrastructure Cooperative 3D Object Detection - Appendix Haibao Y u 1, 2, Yingjuan T ang

Neural Information Processing Systems

Mean A verage Precision (mAP). For VIC3D object detection, we focus on the obstacles around the ego vehicle. There are two metrics used for evaluation: BEV@mAP and 3D@mAP . BEV@mAP evaluates the 3D boxes in the bird's-eye view and ignores the In our implementation, we ignore the transmission cost of calibration files and timestamps. For early fusion, we calculate the transmission cost of transmitting raw data.


Flow-Based Feature Fusion for Vehicle-Infrastructure Cooperative 3D Object Detection Haibao Yu1, 2, Yingjuan T ang

Neural Information Processing Systems

Cooperatively utilizing both ego-vehicle and infrastructure sensor data can significantly enhance autonomous driving perception abilities. However, the uncertain temporal asynchrony and limited communication conditions can lead to fusion misalignment and constrain the exploitation of infrastructure data.




Certified Robustness via Dynamic Margin Maximization and Improved Lipschitz Regularization

Neural Information Processing Systems

To improve the robustness of deep classifiers against adversarial perturbations, many approaches have been proposed, such as designing new architectures with better robustness properties (e.g., Lipschitz-capped networks), or modifying the