Sensory Dynamics and Behaviour Lab, Institute of Experimental Epileptology and Cognition Research, University of Bonn Medical Center, Bonn, Germany.
Sensory Circuits and Neurotechnology Laboratory, Francis Crick Institute, London, United Kingdom.
PLoS Biol. 2024 Nov 21;22(11):e3002908. doi: 10.1371/journal.pbio.3002908. eCollection 2024 Nov.
Odors are transported by seemingly chaotic plumes, whose spatiotemporal structure contains rich information about space, with olfaction serving as a gateway for obtaining and processing this spatial information. Beyond tracking odors, olfaction provides localization and chemical communication cues for detecting conspecifics and predators, and linking external environments to internal cognitive maps. In this Essay, we discuss recent physiological, behavioral, and methodological advancements in mammalian olfactory research to present our current understanding of how olfaction can be used to navigate the environment. We also examine potential neural mechanisms that might convert dynamic olfactory inputs into environmental maps along this axis. Finally, we consider technological applications of odor dynamics for developing bio-inspired sensor technologies, robotics, and computational models. By shedding light on the principles underlying the processing of odor dynamics, olfactory research will pave the way for innovative solutions that bridge the gap between biology and technology, enriching our understanding of the natural world.
气味通过看似混沌的羽流传输,其时空结构包含有关空间的丰富信息,嗅觉作为获取和处理这些空间信息的门户。除了追踪气味,嗅觉还为检测同种生物和捕食者提供定位和化学通讯线索,并将外部环境与内部认知地图联系起来。在这篇文章中,我们讨论了哺乳动物嗅觉研究中的最新生理、行为和方法学进展,以展示我们目前对嗅觉如何用于导航环境的理解。我们还研究了可能的神经机制,这些机制可能沿着这个轴将动态嗅觉输入转换为环境地图。最后,我们考虑了气味动态的技术应用,用于开发仿生传感器技术、机器人技术和计算模型。通过揭示嗅觉动态处理背后的原理,嗅觉研究将为弥合生物学和技术之间的差距铺平道路,为我们对自然世界的理解带来富有创新性的解决方案。