about
The origin of behavioral bursts in decision-making circuitryEuropean sea bass show behavioural resilience to near-future ocean acidificationOptimally wired subnetwork determines neuroanatomy of Caenorhabditis elegans.Network adaptation improves temporal representation of naturalistic stimuli in Drosophila eye: I dynamics.Brain activity at 70-80 Hz changes during olfactory stimulation protocols in Drosophila.Collective animal behavior from Bayesian estimation and probability matching.Wiring economy and volume exclusion determine neuronal placement in the Drosophila brain.Structure of deviations from optimality in biological systems.Improving Collective Estimations Using Resistance to Social Influence.A common rule for decision making in animal collectives across species.The first mecp2-null zebrafish model shows altered motor behaviorsThe ontogeny of sleep-wake cycles in zebrafish: a comparison to humans.Ontogeny of collective behavior reveals a simple attraction rule.Automated image-based tracking and its application in ecology.Zebrafish Behavior: Opportunities and Challenges.Coding with spike shapes and graded potentials in cortical networks.Microsaccadic sampling of moving image information provides Drosophila hyperacute vision.Feedback network controls photoreceptor output at the layer of first visual synapses in Drosophila.Toward a Molecular Profile of Self-RepresentationEstimation models describe well collective decisions among three options.The world according to zebrafish: how neural circuits generate behavioridTracker: tracking individuals in a group by automatic identification of unmarked animals.Collective Behavior: Social Digging in Drosophila Larvae.Adversity magnifies the importance of social information in decision-making.Stimulus history reliably shapes action potential waveforms of cortical neurons.Wiring economy can account for cell body placement across species and brain areas.Sodium pumps adapt spike bursting to stimulus statistics.Age-independent synaptogenesis by phosphoinositide 3 kinase.Neuronal algorithms that detect the temporal order of events.The relationship between behavior acquisition and persistence abilities: Involvement of adult hippocampal neurogenesis.Histone H4 acetylation regulates behavioral inter-individual variability in zebrafish.Temporal pattern recognition based on instantaneous spike rate coding in a simple auditory system.Signatures of optimal control in pairs of schooling zebrafish.Species diversity rises exponentially with the number of available resources in a multi-trait competition modelZebrafish aggression on the sub-second time scale: evidence for mutual motor coordination and multi-functional attack manoeuvresScars in groups of eigenstates in a classically chaotic systemErrors drive the evolution of biological signalling to costly codesReliable biological communication with realistic constraintsVariability in noise-driven integrator neuronsDeep attention networks reveal the rules of collective motion in zebrafish
P50
Q27333222-110F5DD3-14BD-4D82-9B77-B5CBA7F12882Q28584676-3CCE3710-F3A3-40D5-89EF-6311AA8B22B2Q33303013-AA0B62D7-8F57-4FE7-8C02-3B0B49D8A658Q33404077-BD1DFFB9-BAD3-4230-9062-2EE5EBD09F61Q33705093-28AF7EFF-D2D5-4864-9828-12C52C82CCCDQ33705093-F1A8547B-1547-4DCA-B284-5FC0C6637433Q34085607-368D4C46-0AE2-4247-BD20-95D259A2ECC4Q34236161-0925EAFA-9BC4-476C-9139-7A67E835D0F5Q35013239-816DB674-8088-4706-A64A-58D8237B854BQ35840618-14139F4C-2A36-4898-8CED-C1391F2138B6Q36483783-65FB7E45-D5E9-4980-86F1-245EE1D6C005Q37017708-EBCB1174-4EEC-4103-A20F-8102ABDAE4F7Q37303779-210F12BA-E0E5-49A4-BF11-1AB40A90B636Q37682421-71F9E293-EFEA-402E-9B46-C146DF3A654CQ38218489-0A294323-FB5D-468C-9D29-10964BCD9687Q39219118-42CECE5F-4BCB-41A7-A323-00FCC1C04CA9Q39782261-90EBFAAF-0FD8-4E9A-A91C-28BCBBAE0D49Q41618389-3F7808E8-ECD4-46B5-9B5B-D8B18360C748Q41984375-8614C77A-1B96-49F4-BCD2-C0D44A2604B6Q42363137-83E375B4-D714-4DDD-BDAD-3320F44E3D92Q42618965-B34A3891-FEE6-4BBF-8F22-428B67980078Q42745255-2C656E6B-73A5-44B0-BD2E-38F16FCB5510Q43556412-CA5531CD-76D8-4C24-AE86-3265358245B6Q46130943-F84DFB11-DD33-4E0A-AE3F-B257F0DED1F4Q46251697-B7BEDC3A-077E-449F-9759-3ACC3870532DQ46535553-0DC23BD6-72F3-492C-9E0D-1F3A58731DE1Q46935288-FCB18E56-1016-4D3D-8D76-A5B3974C29B5Q46973839-A6498D31-FE23-4399-8B0D-9A0B4E8E91EEQ47071209-BDD9C558-B24B-45DF-9C4A-0E3F260E1B15Q48439027-84AFAA08-CA31-44D9-9ADF-8E9315E54122Q48961519-1AA546DD-4342-43DD-822E-846EAEACBD5DQ52309631-FE8DE851-518D-4850-8671-854D0A760570Q52640833-211B9893-D892-4F97-A5D2-8EEF529EB722Q53360087-ED6D3505-9016-45F3-890B-DAA5FCC6E762Q58693763-02935A6D-E0FB-4BAE-9319-1E6575C1A98EQ58776226-79B391D2-A8A5-41A7-9A9F-2D23226F14C9Q74551077-8ADABB6A-A9A0-4BBE-BCC6-467F3C97D652Q77651277-5DA0064F-0DDB-415A-B1D0-75B17A6D04B6Q81373391-865A5F4F-9CDA-4994-8CA0-B1B8D751207FQ81373983-BEB0B288-DF6B-4DD1-A5AA-474B645CF1D4
P50
description
hulumtues
@sq
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Gonzalo G de Polavieja
@ast
Gonzalo G de Polavieja
@en
Gonzalo G de Polavieja
@es
Gonzalo G de Polavieja
@sl
type
label
Gonzalo G de Polavieja
@ast
Gonzalo G de Polavieja
@en
Gonzalo G de Polavieja
@es
Gonzalo G de Polavieja
@sl
prefLabel
Gonzalo G de Polavieja
@ast
Gonzalo G de Polavieja
@en
Gonzalo G de Polavieja
@es
Gonzalo G de Polavieja
@sl
P108
P106
P1153
6603254977
P21
P2798
P31
P4012
P496
0000-0001-5359-3426