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X-Align: Cross-Modal Cross-View Alignment for Bird's-Eye-View Segmentation

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abstract

Bird's-eye-view (BEV) grid is a common representation for the perception of road components, e.g., drivable area, in autonomous driving. Most existing approaches rely on cameras only to perform segmentation in BEV space, which is fundamentally constrained by the absence of reliable depth information. Latest works leverage both camera and LiDAR modalities, but sub-optimally fuse their features using simple, concatenation-based mechanisms. In this paper, we address these problems by enhancing the alignment of the unimodal features in order to aid feature fusion, as well as enhancing the alignment between the cameras' perspective view (PV) and BEV representations. We propose X-Align, a novel end-to-end cross-modal and cross-view learning framework for BEV segmentation consisting of the following components: (i) a novel Cross-Modal Feature Alignment (X-FA) loss, (ii) an attention-based Cross-Modal Feature Fusion (X-FF) module to align multi-modal BEV features implicitly, and (iii) an auxiliary PV segmentation branch with Cross-View Segmentation Alignment (X-SA) losses to improve the PV-to-BEV transformation. We evaluate our proposed method across two commonly used benchmark datasets, i.e., nuScenes and KITTI-360. Notably, X-Align significantly outperforms the state-of-the-art by 3 absolute mIoU points on nuScenes. We also provide extensive ablation studies to demonstrate the effectiveness of the individual components.

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representative citing papers

Towards Quantum Machine Learning for Malicious Code Analysis

cs.LG · 2025-08-26 · conditional · novelty 4.0

Applying QMLP and QCNN quantum classifiers to five malware datasets yields binary accuracies up to 96% and multiclass accuracy up to 95.7%, with QMLP generally more accurate and QCNN faster.

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  • Towards Quantum Machine Learning for Malicious Code Analysis cs.LG · 2025-08-26 · conditional · none · ref 27 · internal anchor

    Applying QMLP and QCNN quantum classifiers to five malware datasets yields binary accuracies up to 96% and multiclass accuracy up to 95.7%, with QMLP generally more accurate and QCNN faster.