Optical imaging of the spontaneous depolarization wave in the mouse embryo: origins and pharmacological nature
Spontaneous embryonic movements, called embryonic motility, are produced by correlated spontaneous activity in the cranial and spinal nerves, which is driven by brainstem and spinal networks. Using optical imaging with a voltage‐sensitive dye, we revealed previously in the chick and rat embryos that...
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| Veröffentlicht in: | Annals of the New York Academy of Sciences 2013-03, Vol.1279 (1), p.60-70 |
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| creator | Momose-Sato, Yoko Sato, Katsushige |
| description | Spontaneous embryonic movements, called embryonic motility, are produced by correlated spontaneous activity in the cranial and spinal nerves, which is driven by brainstem and spinal networks. Using optical imaging with a voltage‐sensitive dye, we revealed previously in the chick and rat embryos that this correlated activity is a widely propagating wave of neural depolarization, which we termed the depolarization wave. One important consideration is whether a depolarization wave with similar characteristics occurs in other species, especially in different mammals. Here, we provide evidence for the existence of the depolarization wave in the mouse embryo by summarizing spatiotemporal characteristics and pharmacological natures of the widely propagating wave activity. The findings show that a synchronized wave with common characteristics is expressed in different species, suggesting its fundamental roles in neural development. |
| doi_str_mv | 10.1111/j.1749-6632.2012.06806.x |
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N.Y. Acad. Sci</addtitle><description>Spontaneous embryonic movements, called embryonic motility, are produced by correlated spontaneous activity in the cranial and spinal nerves, which is driven by brainstem and spinal networks. Using optical imaging with a voltage‐sensitive dye, we revealed previously in the chick and rat embryos that this correlated activity is a widely propagating wave of neural depolarization, which we termed the depolarization wave. One important consideration is whether a depolarization wave with similar characteristics occurs in other species, especially in different mammals. Here, we provide evidence for the existence of the depolarization wave in the mouse embryo by summarizing spatiotemporal characteristics and pharmacological natures of the widely propagating wave activity. 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| subjects | Animals Brain - drug effects Brain - embryology Brain - physiology Brain Mapping - methods Correlation Depolarization depolarization wave development Embryo, Nonmammalian - cytology Embryo, Nonmammalian - drug effects Embryo, Nonmammalian - physiology Embryos Humans Imaging Mammals Membrane Potentials - drug effects Membrane Potentials - physiology Mice Models, Biological Movements Neural Pathways - drug effects Neural Pathways - embryology Neurogenesis - physiology Neurotransmitter Agents - metabolism Neurotransmitter Agents - pharmacology Optical Imaging - methods optical recording Rats Spinal Cord - drug effects Spinal Cord - embryology Spinal Cord - physiology Spontaneous spontaneous activity voltage-sensitive dye Wave propagation |
| title | Optical imaging of the spontaneous depolarization wave in the mouse embryo: origins and pharmacological nature |
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