Literature DB >> 19005000

Head-unrestrained gaze adaptation in the rhesus macaque.

Aaron L Cecala1, Edward G Freedman.   

Abstract

The ability to adjust the amplitude of gaze shifts in response to persistent visual errors ("gaze adaptation") has been investigated primarily by introducing visual errors at the end of saccades produced by head-restrained primates. Very little is known about the behavior and neural mechanisms underlying gaze adaptation when the head is free to move. We tested alternative hypotheses about the signals that are altered during gaze adaptation by increasing (25 degrees --> 50 degrees ; "forward adaptation") or decreasing (50 degrees --> 25 degrees ; "backward adaptation") the size of large, head-unrestrained gaze shifts. In our three rhesus monkey subjects, changes to primary gaze shift amplitude occurred regardless of the particular combinations of eye and head movements that made up the amplitude-altered gaze shifts. The relative changes to eye and head movements that occurred during adaptation could be predicted based on the magnitude of gaze adaptation and the positions of the eyes in the orbits at gaze onset. These results are consistent with the hypothesis that gaze adaptation occurs at the level of a gaze shift command and inconsistent with hypotheses based on the assumption that gaze adaptation results from alterations to eye- and/or head-specific signals.

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Year:  2008        PMID: 19005000      PMCID: PMC2637010          DOI: 10.1152/jn.90735.2008

Source DB:  PubMed          Journal:  J Neurophysiol        ISSN: 0022-3077            Impact factor:   2.714


  58 in total

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Authors:  Yoshiko Kojima; Yoshiki Iwamoto; Kaoru Yoshida
Journal:  Neurosci Res       Date:  2005-10-03       Impact factor: 3.304

2.  Discharge of monkey nucleus reticularis tegmenti pontis neurons changes during saccade adaptation.

Authors:  N Takeichi; C R S Kaneko; A F Fuchs
Journal:  J Neurophysiol       Date:  2005-05-25       Impact factor: 2.714

3.  Cerebellar complex spike firing is suitable to induce as well as to stabilize motor learning.

Authors:  Nicolas Catz; Peter W Dicke; Peter Thier
Journal:  Curr Biol       Date:  2005-12-20       Impact factor: 10.834

4.  Amplitude adaptation occurs where a saccade is represented as a vector and not as its components.

Authors:  J Johanna Hopp; Albert F Fuchs
Journal:  Vision Res       Date:  2006-05-15       Impact factor: 1.886

5.  Premotor inhibitory neurons carry signals related to saccade adaptation in the monkey.

Authors:  Yoshiko Kojima; Yoshiki Iwamoto; Farrel R Robinson; Christopher T Noto; Kaoru Yoshida
Journal:  J Neurophysiol       Date:  2007-10-31       Impact factor: 2.714

6.  Activity changes in monkey superior colliculus during saccade adaptation.

Authors:  Norihito Takeichi; Chris R S Kaneko; Albert F Fuchs
Journal:  J Neurophysiol       Date:  2007-04-18       Impact factor: 2.714

7.  Effect of reversible inactivation of superior colliculus on head movements.

Authors:  Mark M G Walton; Bernard Bechara; Neeraj J Gandhi
Journal:  J Neurophysiol       Date:  2008-02-27       Impact factor: 2.714

8.  Amplitude changes in response to target displacements during human eye-head movements.

Authors:  Aaron L Cecala; Edward G Freedman
Journal:  Vision Res       Date:  2007-12-21       Impact factor: 1.886

9.  Cerebellar-dependent motor learning is based on pruning a Purkinje cell population response.

Authors:  Nicolas Catz; Peter W Dicke; Peter Thier
Journal:  Proc Natl Acad Sci U S A       Date:  2008-05-13       Impact factor: 11.205

10.  Complex spike activity of purkinje cells in the oculomotor vermis during behavioral adaptation of monkey saccades.

Authors:  Robijanto Soetedjo; Albert F Fuchs
Journal:  J Neurosci       Date:  2006-07-19       Impact factor: 6.709

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  7 in total

Review 1.  Saccade adaptation as a model of learning in voluntary movements.

Authors:  Yoshiki Iwamoto; Yuki Kaku
Journal:  Exp Brain Res       Date:  2010-06-11       Impact factor: 1.972

2.  The reference frames in saccade adaptation.

Authors:  Eckart Zimmermann
Journal:  J Neurophysiol       Date:  2013-01-16       Impact factor: 2.714

3.  Context cue-dependent saccadic adaptation in rhesus macaques cannot be elicited using color.

Authors:  Aaron L Cecala; Ivan Smalianchuk; Sanjeev B Khanna; Matthew A Smith; Neeraj J Gandhi
Journal:  J Neurophysiol       Date:  2015-05-20       Impact factor: 2.714

4.  Population coding in the cerebellum: a machine learning perspective.

Authors:  Reza Shadmehr
Journal:  J Neurophysiol       Date:  2020-10-28       Impact factor: 2.714

5.  The locus of motor activity in the superior colliculus of the rhesus monkey is unaltered during saccadic adaptation.

Authors:  Stephan Quessy; Julie Quinet; Edward G Freedman
Journal:  J Neurosci       Date:  2010-10-20       Impact factor: 6.167

6.  The lateral intraparietal area codes the location of saccade targets and not the dimension of the saccades that will be made to acquire them.

Authors:  Sara C Steenrod; Matthew H Phillips; Michael E Goldberg
Journal:  J Neurophysiol       Date:  2013-03-06       Impact factor: 2.714

7.  Saccade adaptation deficits in developmental dyslexia suggest disruption of cerebellar-dependent learning.

Authors:  Edward G Freedman; Sophie Molholm; Michael J Gray; Daniel Belyusar; John J Foxe
Journal:  J Neurodev Disord       Date:  2017-11-09       Impact factor: 4.025

  7 in total

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