Detection of magnetic field properties using distributed sensing: A computational neuroscience approach


Abstract:

Diverse taxa use Earth's magnetic field to aid both short- and long-distance navigation. Study of these behaviors has led to a variety of postulated sensory and processing mechanisms that remain unconfirmed. Although several models have been proposed to explain and understand these mechanisms' underpinnings, they have not necessarily connected a putative sensory signal to the nervous system. Using mathematical software simulation, hardware testing and the computational neuroscience tool of dynamic neural fields, the present work implements a previously developed conceptual model for processing magnetite-based magnetosensory data. Results show that the conceptual model, originally constructed to stimulate thought and generate insights into future physiological experiments, may provide a valid approach to encoding magnetic field information. Specifically, magnetoreceptors that are each individually capable of sensing directional information can, as a population, encode magnetic intensity and direction. The findings hold promise both as a biological magnetoreception concept and for generating engineering innovations in sensing and processing.

Año de publicación:

2017

Keywords:

  • magnetoreception
  • Navigation
  • distributed sensing
  • magnetosensing
  • computational neuroscience
  • animal magnetic reception
  • dynamic neural fields

Fuente:

scopusscopus

Tipo de documento:

Article

Estado:

Acceso restringido

Áreas de conocimiento:

  • Neuropsicología
  • Simulación por computadora

Áreas temáticas:

  • Fisiología humana
  • Fisiología y materias afines