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Colomb, Julien ; Brembs, Björn

PKC in motorneurons underlies self-learning, a form of motor learning inDrosophila

Colomb, Julien und Brembs, Björn (2016) PKC in motorneurons underlies self-learning, a form of motor learning inDrosophila. PeerJ 4, e1971.

Veröffentlichungsdatum dieses Volltextes: 17 Mrz 2020 11:27
Artikel
DOI zum Zitieren dieses Dokuments: 10.5283/epub.42280


Zusammenfassung

Tethering a fly for stationary flight allows for exquisite control of its sensory input, such as visual or olfactory stimuli or a punishing infrared laser beam, A torque meter measures the turning attempts of the tethered fly around its vertical body axis, By punishing, say, left turning attempts (in a homogeneous environment), one can train a fly to restrict its behaviour to right turning ...

Tethering a fly for stationary flight allows for exquisite control of its sensory input, such as visual or olfactory stimuli or a punishing infrared laser beam, A torque meter measures the turning attempts of the tethered fly around its vertical body axis, By punishing, say, left turning attempts (in a homogeneous environment), one can train a fly to restrict its behaviour to right turning attempts. It was recently discovered that this form of operant conditioning (called operant self-learning), may constitute a form of motor learning in Drosophila. Previous work had shown that Protein Kinase C (PKC) and the transcription factor dFoxP were specifically involved in self-learning, but not in other forms of learning. These molecules are specifically involved in various forms of motor learning in other animals, such as compulsive biting in Aplysia, song-learning in birds, procedural learning in mice or language acquisition in humans. Here we describe our efforts to decipher which PKC gene is involved in self-learning in Drosophila We also provide evidence that motorneurons may be one part of the neuronal network modified during self-learning experiments. The collected evidence is reminiscent of one of the simplest, clinically relevant forms of motor learning in humans, operant reflex conditioning, which also relies on motorneuron plasticity.



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Details

DokumentenartArtikel
Titel eines Journals oder einer ZeitschriftPeerJ
Verlag:PEERJ INC
Ort der Veröffentlichung:LONDON
Band:4
Seitenbereich:e1971
Datum2016
Zusätzliche Informationen (Öffentlich)öffentliche "review history" online unter o. a. DOI
InstitutionenBiologie und Vorklinische Medizin > Institut für Zoologie
Biologie und Vorklinische Medizin > Institut für Zoologie > Neurogenetik (Prof. Dr. Björn Brembs)
Identifikationsnummer
WertTyp
10.7717/peerj.1971DOI
Stichwörter / KeywordsFLIGHT ORIENTATION; MEMORY TRACES; H-REFLEX; OPERANT; BEHAVIOR; MECHANISMS; PLASTICITY; APLYSIA; PROTEIN; VARIABILITY; Motor learning; Habit; Operant learning; FoxP; Skill learning; Procedural memory; Motor adaptation; Egocentric strategy
Dewey-Dezimal-Klassifikation500 Naturwissenschaften und Mathematik > 570 Biowissenschaften, Biologie
StatusVeröffentlicht
BegutachtetJa, diese Version wurde begutachtet
An der Universität Regensburg entstandenJa
URN der UB Regensburgurn:nbn:de:bvb:355-epub-422801
Dokumenten-ID42280

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