A fractional Maxwell model is applied to a non-planar strike-slip fault, giving displacement and strain solutions, but the stress evolution after fault movement is derived incorrectly.
Learning to Communicate and Correct Pose Errors
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abstract
Learned communication makes multi-agent systems more effective by aggregating distributed information. However, it also exposes individual agents to the threat of erroneous messages they might receive. In this paper, we study the setting proposed in V2VNet, where nearby self-driving vehicles jointly perform object detection and motion forecasting in a cooperative manner. Despite a huge performance boost when the agents solve the task together, the gain is quickly diminished in the presence of pose noise since the communication relies on spatial transformations. Hence, we propose a novel neural reasoning framework that learns to communicate, to estimate potential errors, and finally, to reach a consensus about those errors. Experiments confirm that our proposed framework significantly improves the robustness of multi-agent self-driving perception and motion forecasting systems under realistic and severe localization noise.
fields
physics.geo-ph 1years
2025 1verdicts
REJECT 1representative citing papers
citing papers explorer
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Deformation Due to Non-planar Fault Movement in Fractional Maxwell Medium
A fractional Maxwell model is applied to a non-planar strike-slip fault, giving displacement and strain solutions, but the stress evolution after fault movement is derived incorrectly.