System Identification of the Target Tracking Behavior of Zebrafish During Rheotaxis

Orhun Koc, Alp Demirel, E. Aydin, Fatmagul Ibisoglu, Sevval Izel Solmaz, Kaan Ari, Ayse Idman, Ismail Uyanik
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Abstract

Animals successfully perform many behavioral tasks within the framework of a closed-loop sensorimotor control system during their daily lives. To achieve this, animals receive sensory signals from their environment through various sensory receptors and process these signals in their central nervous systems (CNS). Then, using this sensory feedback, animals produce necessary motor signals and transmit them to their muscles to perform the desired behavior. During this process, animals integrate sensory information perceived by different sensory receptors and they simultaneously stimulate multiple muscle combinations. The goal of this study is to identify the closed-loop sensorimotor control processes of animals during their unconstrained behaviors. To achieve this, we built a novel experimental setup that allows data-driven system identification of the target tracking behavior of zebrafish during rheotaxis. In that, a stimulus target oscillating in the frequency range of 0-2 Hz was presented to the zebrafish. Then, frequency response of the target tracking performance for N=5 fish were estimated.
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斑马鱼流变过程中目标跟踪行为的系统识别
动物在日常生活中成功地在闭环感觉运动控制系统的框架内完成许多行为任务。为了实现这一目标,动物通过各种感觉受体接收来自环境的感觉信号,并在中枢神经系统(CNS)中处理这些信号。然后,利用这种感觉反馈,动物产生必要的运动信号,并将其传递给肌肉,以执行所需的行为。在这个过程中,动物整合不同感觉受体感知到的感觉信息,同时刺激多个肌肉组合。本研究的目的是确定动物在无约束行为过程中的闭环感觉运动控制过程。为了实现这一目标,我们建立了一个新的实验装置,允许数据驱动系统识别斑马鱼在流变过程中的目标跟踪行为。其中,向斑马鱼呈现一个频率在0-2 Hz范围内振荡的刺激目标。然后,对N=5条鱼目标跟踪性能的频率响应进行估计。
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