Jacob E Montgomery
Overview
Explore the profile of Jacob E Montgomery including associated specialties, affiliations and a list of published articles.
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14
Citations
810
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Recent Articles
1.
Wiggin T, Montgomery J, Brunick A, Peck J, Masino M
eNeuro
. 2022 Mar;
9(2).
PMID: 35277451
Survival for vertebrate animals is dependent on the ability to successfully find food, locate a mate, and avoid predation. Each of these behaviors requires motor control, which is set by...
2.
Montgomery J, Wahlstrom-Helgren S, Vanpelt K, Masino M
Physiol Rep
. 2021 Mar;
9(6):e14774.
PMID: 33769694
N-methyl-d-aspartate (NMDA) application has conventionally been used to activate spinal networks to induce locomotion in spinalized animals. We recently described an alternative approach in which application of continuous blue light...
3.
Wahlstrom-Helgren S, Montgomery J, Vanpelt K, Biltz S, Peck J, Masino M
J Neurophysiol
. 2019 Oct;
122(6):2414-2426.
PMID: 31642404
The spinal cord (SC) contains neural networks that are capable of producing organized locomotor activity autonomously from the brain. Locomotor activity can be induced in spinally transected (spinalized) animals by...
4.
Montgomery J, Wahlstrom-Helgren S, Wiggin T, Corwin B, Lillesaar C, Masino M
Dev Neurobiol
. 2018 Jun;
PMID: 29923318
Serotonin (5HT) is a modulator of many vital processes in the spinal cord (SC), such as production of locomotion. In the larval zebrafish, intraspinal serotonergic neurons (ISNs) are a source...
5.
Tye M, Montgomery J, Hobbs M, Vanpelt K, Masino M
Zebrafish
. 2018 Jan;
15(2):179-187.
PMID: 29293412
The lack of standardized diet for laboratory animals can have profound effects on animal health and lead to less reproducible research outcomes. Live diets are commonly used in zebrafish culture...
6.
Montgomery J, Wiggin T, Rivera-Perez L, Lillesaar C, Masino M
Dev Neurobiol
. 2015 Oct;
76(6):673-87.
PMID: 26437856
Zebrafish intraspinal serotonergic neuron (ISN) morphology and distribution have been examined in detail at different ages; however, some aspects of the development of these cells remain unclear. Although antibodies to...
7.
Bailey T, Fossum S, Fimbel S, Montgomery J, Hyde D
Exp Eye Res
. 2010 Aug;
91(5):601-12.
PMID: 20696157
The damaged zebrafish retina replaces lost neurons through a regenerative response that initiates with the asymmetric cell division of Müller glia to produce neuronal progenitor cells that proliferate and migrate...
8.
Thummel R, Enright J, Kassen S, Montgomery J, Bailey T, Hyde D
Exp Eye Res
. 2010 Feb;
90(5):572-82.
PMID: 20152834
The light-damaged zebrafish retina results in the death of photoreceptor cells and the subsequent regeneration of the missing rod and cone cells. Photoreceptor regeneration initiates with asymmetric Müller glial cell...
9.
Montgomery J, Parsons M, Hyde D
J Comp Neurol
. 2010 Jan;
518(6):800-14.
PMID: 20058308
The adult zebrafish retina continuously produces rod photoreceptors from infrequent Müller glial cell division, yielding neuronal progenitor cells that migrate to the outer nuclear layer and become rod precursor cells...
10.
Characterization of Müller glia and neuronal progenitors during adult zebrafish retinal regeneration
Thummel R, Kassen S, Enright J, Nelson C, Montgomery J, Hyde D
Exp Eye Res
. 2008 Aug;
87(5):433-44.
PMID: 18718467
The adult zebrafish retina exhibits a robust regenerative response following light-induced photoreceptor cell death. This response is initiated by the Müller glia proliferating in the inner nuclear layer (INL), which...