SFB 1372: Magnetoreception and navigation in vertebrates: from biophysics to brain and behaviour

SFB 1372：脊椎动物的磁接收和导航：从生物物理学到大脑和行为

• 批准号: 395940726
• 金额: --
• 依托单位: Freie Universität Berlin
• 依托单位国家: 德国
• 项目类别: Collaborative Research Centres
• 资助国家: 德国
• 项目状态: 未结题
• 来源: https://gepris.dfg.de/gepris/projekt/395940726?language=en
• 关键词: SFB; 1372; Magnetoreception; navigation; vertebrates

For centuries, humans have been fascinated by migratory animals being able to find their way over thousands of kilometres with a precision unobtainable for unaided human navigators. The central aim of SFB 1372 is to achieve a comprehensive and multidisciplinary understanding of magnetoreception and vertebrate navigation all the way from the biophysical mechanisms to the natural behaviour of navigating animals, covering every step in between. To achieve this, we need to understand how magnetic cues are sensed, how magnetic information reaches the brain for processing, how multisensory navigation-relevant information is integrated in the brain, whether neural correlates of map and compass information exist beyond a lab environment of a few square metres, what the genetic basis of migration is, and how cue manipulations and different sensory strategies affect navigation behaviours and global migration patterns. The proposed SFB is structured into three overlapping and interconnected sections representing the three steps that navigation-relevant signals take within the animal: Signal Detection, Neural Processing, and Navigation Behaviour. The proposed highly multidisciplinary approach is needed to bring about the quantum leap in our understanding of magnetoreception and navigation in vertebrates that we expect to achieve.

几个世纪以来，人类一直着迷于迁徙动物，它们能够在数千公里的距离内找到自己的路，而人类的导航员无法做到这一点。SFB 1372的中心目标是实现对磁感受和脊椎动物导航的全面和多学科理解，从生物物理机制到导航动物的自然行为，涵盖其间的每一步。为了实现这一目标，我们需要了解磁线索是如何被感知的，磁信息是如何到达大脑进行处理的，多感官导航相关信息是如何在大脑中整合的，地图和指南针信息的神经相关性是否存在于几平方米的实验室环境之外，迁移的遗传基础是什么，以及线索操作和不同的感官策略如何影响导航行为和全球迁移模式。拟议的SFB结构分为三个重叠且相互连接的部分，代表了动物内部导航相关信号的三个步骤：信号检测，神经处理和导航行为。所提出的高度多学科的方法需要带来我们对脊椎动物磁接收和导航的理解的量子飞跃，我们期望实现。