<p>(A) Schematic diagrams of Spinalized, Rostral-10, Rostral-5, Middle-10, Middle-5, and Caudal-5 preparations. Dark wedges indicate the sites of spinal transections, and gray bars above each larva indicate the spared spinal cord region used for recordings subsequent to transection. (B) Representative traces showing fictive motor activity in each of the experimental conditions below its respective schematic diagram. Bottom traces show the indicated region at a finer time scale. (C–D) Plots of burst frequency (C) and burst duration (D) in each experimental group. The bar labeled “S” is the spinalized group.</p
Neural control of behaviour during development is a complicated orchestration of gene expression, ne...
Vertebrate locomotion at different speeds is driven by descending excitatory connections to central ...
The goal of this work was two-fold: 1) To apply serial block-face electron microscopy (SBEM) to the ...
Additional contributors: John Eian; Katie Fallen; Mark Masino (faculty mentor).The zebrafish larvae ...
Fictive locomotion is frequently used to study locomotor output in paralyzed animals. We have evalua...
The cellular and network basis for most vertebrate locomotor central pattern generators (CPGs) is in...
The cellular and network basis for most vertebrate locomotor central pattern generators (CPGs) is in...
The development of spinal circuits underlying motor behaviors was examined in zebrafish. Zebrafish e...
The cellular and network basis for most vertebrate locomotor central pattern generators (CPGs) is in...
SummaryBackgroundDopamine (DA) has long been known to have modulatory effects on vertebrate motor ci...
The development of swimming was investigated in zebrafish aged 1.5 to 5 days postfertilization by ex...
A basic question in the field of motor control is how different actions are represented by activity ...
Many spinal circuits dedicated to locomotor control have been identified in the developing zebrafish...
In larvae of the amphibian, Xenopus laevis, spinal neurons which are active during fictive swimming ...
The nervous system directly controls the muscles of the body, and thus, the behavior of the animal. ...
Neural control of behaviour during development is a complicated orchestration of gene expression, ne...
Vertebrate locomotion at different speeds is driven by descending excitatory connections to central ...
The goal of this work was two-fold: 1) To apply serial block-face electron microscopy (SBEM) to the ...
Additional contributors: John Eian; Katie Fallen; Mark Masino (faculty mentor).The zebrafish larvae ...
Fictive locomotion is frequently used to study locomotor output in paralyzed animals. We have evalua...
The cellular and network basis for most vertebrate locomotor central pattern generators (CPGs) is in...
The cellular and network basis for most vertebrate locomotor central pattern generators (CPGs) is in...
The development of spinal circuits underlying motor behaviors was examined in zebrafish. Zebrafish e...
The cellular and network basis for most vertebrate locomotor central pattern generators (CPGs) is in...
SummaryBackgroundDopamine (DA) has long been known to have modulatory effects on vertebrate motor ci...
The development of swimming was investigated in zebrafish aged 1.5 to 5 days postfertilization by ex...
A basic question in the field of motor control is how different actions are represented by activity ...
Many spinal circuits dedicated to locomotor control have been identified in the developing zebrafish...
In larvae of the amphibian, Xenopus laevis, spinal neurons which are active during fictive swimming ...
The nervous system directly controls the muscles of the body, and thus, the behavior of the animal. ...
Neural control of behaviour during development is a complicated orchestration of gene expression, ne...
Vertebrate locomotion at different speeds is driven by descending excitatory connections to central ...
The goal of this work was two-fold: 1) To apply serial block-face electron microscopy (SBEM) to the ...