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对单个测定的果蝇幼虫进行的视觉学习。

Visual learning in individually assayed Drosophila larvae.

作者信息

Gerber B, Scherer S, Neuser K, Michels B, Hendel T, Stocker R F, Heisenberg M

机构信息

Department of Genetics and Neurobiology, Biocentre Am Hubland, University of Würzburg, D 970 74 Würzburg, Germany.

出版信息

J Exp Biol. 2004 Jan;207(Pt 1):179-88. doi: 10.1242/jeb.00718.

DOI:10.1242/jeb.00718
PMID:14638844
Abstract

An understanding of associative learning is facilitated if it can be analyzed in a simple animal like the fruit fly Drosophila. Here, we introduce the first visual associative learning paradigm for larval Drosophila; this is remarkable as larvae have an order of magnitude fewer neurons than adult flies. Larvae were subjected to either of two reciprocal training regimes: Light+/Dark- or Light-/Dark+. Subsequently, all larvae were individually tested for their preference between Light versus Dark. The difference between training regimes was therefore exclusively which visual situation was associated with which reinforcer; differences observed during the test thus reflected exclusively associative learning. For positive reinforcement (+) we used fructose (FRU), and for negative reinforcement (-) either quinine or sodium chloride (QUI, NaCl). Under these conditions, associative learning could be reproducibly observed in both wild-type strains tested. We then compared the effectiveness of training using differential conditioning, with both positive and negative reinforcement, to that using only positive or only negative reinforcement. We found that FRU only, but neither QUI nor NaCl, was in itself effective as a reinforcer. This is the first demonstration of appetitive learning in larval Drosophila. It is now possible to investigate the behavioral and neuronal organization of appetitive visual learning in this simple and genetically easy-to-manipulate experimental system.

摘要

如果能在像果蝇这样的简单动物身上进行分析,那么对联想学习的理解将会更容易。在此,我们为果蝇幼虫引入了首个视觉联想学习范式;这一点很值得注意,因为幼虫的神经元数量比成年果蝇少一个数量级。幼虫接受两种相互的训练方式之一:光+/暗-或光-/暗+。随后,对所有幼虫分别进行测试,以确定它们在光与暗之间的偏好。因此,训练方式之间的差异仅在于哪种视觉情境与哪种强化物相关联;测试期间观察到的差异因此仅反映了联想学习。对于正强化(+),我们使用果糖(FRU),对于负强化(-),我们使用奎宁或氯化钠(QUI,NaCl)。在这些条件下,在所测试的两种野生型菌株中都能重复观察到联想学习。然后,我们将使用正强化和负强化的差异条件训练的效果与仅使用正强化或仅使用负强化的效果进行了比较。我们发现,只有FRU本身作为强化物是有效的,而QUI和NaCl都无效。这是果蝇幼虫中食欲性学习的首次证明。现在有可能在这个简单且基因易于操作的实验系统中研究食欲性视觉学习的行为和神经元组织。

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