KABB: Knowledge-Aware Bayesian Bandits for Dynamic Expert Coordination in Multi-Agent Systems

As scaling large language models faces prohibitive costs, multi-agent systems emerge as a promising alternative, though challenged by static knowledge assumptions and coordination inefficiencies. We introduces Knowledge-Aware Bayesian Bandits (KABB), a novel framework that enhances multi-agent system coordination through semantic understanding and dynamic adaptation. The framework features three key innovations: a three-dimensional knowledge distance model for deep semantic understanding, a dual-adaptation mechanism for continuous expert optimization, and a knowledge-aware Thompson Sampling strategy for efficient expert selection. Extensive evaluation demonstrates KABB achieves an optimal cost-performance balance, maintaining high performance while keeping computational demands relatively low in multi-agent coordination.

Kolmogorov-Arnold Fourier Networks

Although Kolmogorov-Arnold based interpretable networks (KAN) have strong theoretical expressiveness, they face significant parameter explosion and high-frequency feature capture challenges in high-dimensional tasks. To address this issue, we propose the Kolmogorov-Arnold-Fourier Network (KAF), which effectively integrates trainable Random Fourier Features (RFF) and a novel hybrid GELU-Fourier activation mechanism to balance parameter efficiency and spectral representation capabilities. Our key technical contributions include: (1) merging KAN's dual-matrix structure through matrix association properties to substantially reduce parameters; (2) introducing learnable RFF initialization strategies to eliminate spectral distortion in high-dimensional approximation tasks; (3) implementing an adaptive hybrid activation function that progressively enhances frequency representation during the training process. Comprehensive experiments demonstrate the superiority of our KAF across various domains including vision, NLP, audio processing, and differential equation-solving tasks, effectively combining theoretical interpretability with practical utility and computational efficiency.

DepthSSC: Depth-Spatial Alignment and Dynamic Voxel Resolution for Monocular 3D Semantic Scene Completion

The task of 3D semantic scene completion with monocular cameras is gaining increasing attention in the field of autonomous driving. Its objective is to predict the occupancy status of each voxel in the 3D scene from partial image inputs. Despite the existence of numerous methods, many of them overlook the issue of accurate alignment between spatial and depth information. To address this, we propose DepthSSC, an advanced method for semantic scene completion solely based on monocular cameras. DepthSSC combines the ST-GF (Spatial Transformation Graph Fusion) module with geometric-aware voxelization, enabling dynamic adjustment of voxel resolution and considering the geometric complexity of 3D space to ensure precise alignment between spatial and depth information. This approach successfully mitigates spatial misalignment and distortion issues observed in prior methods. Through evaluation on the SemanticKITTI dataset, DepthSSC not only demonstrates its effectiveness in capturing intricate 3D structural details but also achieves state-of-the-art performance. We believe DepthSSC provides a fresh perspective on monocular camera-based 3D semantic scene completion research and anticipate it will inspire further related studies.