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Cerebellar Neurodynamics Predict Decision Timing and Outcome on the Single-Trial Level

Cell(2020)10.1016/j.cell.2019.12.018Source: DataRank Database

Cerebellar Neurodynamics Predict Decision Timing and Outcome on the Single-Trial Level is a research paper published in Cell (2020). On theSindex it has a DataRank of 0. It has been cited 136 times.

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0DataRank · unranked

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Open Access136 citations

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datarank_citation_only_1hop_v6· scope data_onlyMethodology

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Enrichment:Funding (24 grants)Impact (FWCI 9.61)OA: bronzeTopics (55)Linked Datasets (25)DataCite Reuse (25)IDs (PubMed, OpenAlex)SDGs (1)

FAIR Checklist

Context only (not used in score)

Findable (2/2)

Has DOI
Indexed in repositories

Accessible (1/2)

Open Access

Interoperable (2/2)

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Authors (10)

Jason Manley ORCID,M. Helmreich,Friederike Schlumm,Jennifer Li ORCID,Drew N. Robson ORCID

Live enrichment

PubMed:31955849 OpenAlex:https://openalex.org/W3000696985

Gordon and Betty Moore Foundation

Grant: 2919.01

Intelligence Advanced Research Projects Activity

Grant: D16PC00002

National Institutes of Health

Grant: 1RF1NS110501

National Institutes of Health

Grant: DP1HD094764

National Institutes of Health

Grant: R24NS086601

National Institutes of Health

Grant: 1RF1 NS113251

National Institutes of Health

Grant: R25GM067110

National Institutes of Health

Grant: R01NS049319

National Institutes of Health

Grant: 5U01NS103488

National Institutes of Health

Grant: U19NS104653

National Institutes of Health

Grant: 2R44OD024879

Simons Foundation

Grant: SCGB 542973

National Science Foundation

Grant: DBI-1707408

National Science Foundation

Grant: PHY-1748958

National Institutes of Health

Grant: 1U19NS104653-01

Sensorimotor processing, decision making, and internal states: towards a realistic multiscale circuit model of the larval zebrafish brain

National Institutes of Health

Grant: 1R24NS086601-01

Transgenic zebrafish for neurobiology

National Science Foundation

Grant: 1707408

NeuroNex Technology Hub: Miniaturized open source devices for calcium imaging, electrophysiology, and real-time control of neural activity

National Institutes of Health

Grant: 5R01NS049319-03

MOLECULAR GENETICS OF SENSORY GANGLIA DEVELOPMENT

National Institutes of Health

Grant: 5DP1HD094764-02

DNA-mediated recording of cellular history

National Institutes of Health

Grant: 1R25GM067110-01

ITP Workshop on Biological Networks

National Science Foundation

Grant: 1748958

Kavli Institute for Theoretical Physics

National Institutes of Health

Grant: 1RF1NS110501-01

Lensless, high-speed and multi-region volumetric Ca2+ imaging of up to 1cm2 brain surface across model animals

National Institutes of Health

Grant: 5R44OD024879-03

High-Resolution, Parallelized Imaging of Freely Swimming Zebrafish with a Gigapixel Microscope

National Institutes of Health

Grant: 1RF1NS113251-01

In vivo Imaging of Neuroactivity in the Deep Forward Scattering Regime Using Speckle Identification and Demixing (SPID) Microscopy

FWCI

9.61

Citation Percentile

1.0%

Influential Citations

Citation Trend

2018

2020

2021

2022

2023

2024

2025

2026

bronzeLicense: Elsevier Non-Commercial

journalhttp://www.cell.com/article/S0092867419313807/pdf

BRONZEhttps://www.cell.com/article/S0092867419313807/pdf

publisherhttp://www.cell.com/article/S0092867419313807/pdf

publisherhttps://api.elsevier.com/content/article/PII:S0092867419313807?httpAccept=text/xml

publisherhttps://api.elsevier.com/content/article/PII:S0092867419313807?httpAccept=text/plain

Fields of Study

Neural dynamics and brain functionVestibular and auditory disordersZebrafish Biomedical Research ApplicationsMedicineBiology0301 basic medicine03 medical and health sciences0303 health sciences

MeSH Terms

AnimalsBehavior, AnimalBrain MappingCerebellumCognitionConditioning, OperantDecision MakingGoalsHot TemperatureLarvaMotor ActivityMovementNeuronsPsychomotor PerformanceReaction TimeRhombencephalonZebrafishHabenulaCerebrum

Keywords

BiologyNeuroscienceCerebellumAction selectionCognitionHot TemperatureMovementDecision Makingpopulation ramping activityMotor ActivityLight field microscopymotor planningReaction TimeAnimalsCerebrumZebrafishNeuronsBrain MappingHabenulaBehavior, Animaloperant learningwhole-brain calcium imagingRhombencephalonLarvademixed principal component analysisConditioning, OperantGoalsPsychomotor Performance

Sustainable Development Goals

SDG 0: Peace, Justice and strong institutions

Additional file 10 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 10 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 11 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 11 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 12 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 12 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 13 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 13 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 1 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 1 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 2 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 2 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 3 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 3 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 4 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 4 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 5 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 5 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 6 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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Additional file 6 of High activity and high functional connectivity are mutually exclusive in resting state zebrafish and human brains

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