Edward S Ruthazer
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Explore the profile of Edward S Ruthazer including associated specialties, affiliations and a list of published articles.
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68
Citations
1846
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Recent Articles
1.
Glasgow S, Fisher T, Wong E, Lancon K, Feighan K, Beamish I, et al.
Cell Rep
. 2024 Feb;
43(2):113812.
PMID: 38377003
The ability of the mammalian brain to maintain spatial representations of external or internal information for short periods of time has been associated with sustained neuronal spiking and reverberatory neural...
2.
Foubert D, Cookson F, Ruthazer E
Neurophotonics
. 2023 Sep;
10(4):044408.
PMID: 37766925
The increasingly widespread use of calcium imaging to explore the nature of neuronal activity and circuits has unexpectedly revealed the ubiquitous presence and significance of astrocytic activity. Here, we present...
3.
Chorghay Z, Li V, Schohl A, Ghosh A, Ruthazer E
Sci Rep
. 2023 Aug;
13(1):13383.
PMID: 37591903
The N-methyl-D-aspartate type glutamate receptor (NMDAR) is a molecular coincidence detector which converts correlated patterns of neuronal activity into cues for the structural and functional refinement of developing circuits in...
4.
Kutsarova E, Schohl A, Munz M, Wang A, Zhang Y, Bilash O, et al.
PLoS Biol
. 2023 Apr;
21(4):e3002070.
PMID: 37011100
During development, patterned neural activity instructs topographic map refinement. Axons with similar patterns of neural activity converge onto target neurons and stabilize their synapses with these postsynaptic partners, restricting exploratory...
5.
Li V, Chorghay Z, Ruthazer E
Neuroscience
. 2022 Aug;
508:62-75.
PMID: 35952996
Neural maps are found ubiquitously in the brain, where they encode a wide range of behaviourally relevant features into neural space. Developmental studies have shown that animals devote a great...
6.
Ruthazer E, Beique J, De Koninck Y
Front Neural Circuits
. 2022 Jun;
16:901376.
PMID: 35664457
No abstract available.
7.
Li V, Schohl A, Ruthazer E
Proc Natl Acad Sci U S A
. 2022 Feb;
119(8).
PMID: 35193956
The development of functional topography in the developing brain follows a progression from initially coarse to more precisely organized maps. To examine the emergence of topographically organized maps in the...
8.
Benfey N, Foubert D, Ruthazer E
Front Neural Circuits
. 2022 Feb;
16:826664.
PMID: 35177968
Visual experience is mediated through a relay of finely-tuned neural circuits extending from the retina, to retinorecipient nuclei in the midbrain and thalamus, to the cortex which work together to...
9.
Benfey N, Li V, Schohl A, Ruthazer E
Cell Rep
. 2021 Oct;
37(1):109791.
PMID: 34610307
Various types of sensory stimuli have been shown to induce Ca elevations in glia. However, a mechanistic understanding of the signaling pathways mediating sensory-evoked activity in glia in intact animals...
10.
Chorghay Z, MacFarquhar D, Li V, Aufmkolk S, Schohl A, Wiseman P, et al.
J Comp Neurol
. 2021 Oct;
530(6):871-885.
PMID: 34599848
Myelination allows for the regulation of conduction velocity, affecting the precise timing of neuronal inputs important for the development and function of brain circuits. In turn, myelination may be altered...