SPEAR: Receiver-to-Receiver Acoustic Neural Warping Field
He, Yuhang, Xu, Shitong, Zhong, Jia-Xing, Shin, Sangyun, Trigoni, Niki, Markham, Andrew
–arXiv.org Artificial Intelligence
Unlike traditional source-to-receiver modelling methods that require prior space acoustic properties knowledge to rigorously model audio propagation from source to receiver, we propose to predict by warping the spatial acoustic effects from one reference receiver position to another target receiver position, so that the warped audio essentially accommodates all spatial acoustic effects belonging to the target position. SPEAR can be trained in a data much more readily accessible manner, in which we simply ask two robots to independently record spatial audio at different positions. We further theoretically prove the universal existence of the warping field if and only if one audio source presents. Three physical principles are incorporated to guide SPEAR network design, leading to the learned warping field physically meaningful. We demonstrate SPEAR superiority on both synthetic, photo-realistic and real-world dataset, showing the huge potential of SPEAR to various down-stream robotic tasks.
arXiv.org Artificial Intelligence
Jun-16-2024
- Country:
- Africa > Cameroon
- Gulf of Guinea (0.24)
- Europe > United Kingdom
- England > Oxfordshire > Oxford (0.14)
- North America > United States (0.67)
- Africa > Cameroon
- Genre:
- Research Report (0.50)
- Technology:
- Information Technology > Artificial Intelligence
- Machine Learning > Neural Networks
- Deep Learning (1.00)
- Representation & Reasoning (0.68)
- Robots (0.87)
- Speech (0.94)
- Machine Learning > Neural Networks
- Information Technology > Artificial Intelligence