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蜜蜂大脑中一个已识别神经元的嗅觉学习范式的神经关联

Neural correlates of olfactory learning paradigms in an identified neuron in the honeybee brain.

作者信息

Mauelshagen J

机构信息

Institut für Neurobiologie, FU Berlin, Germany.

出版信息

J Neurophysiol. 1993 Feb;69(2):609-25. doi: 10.1152/jn.1993.69.2.609.

DOI:10.1152/jn.1993.69.2.609
PMID:8459289
Abstract
  1. Sensitization and classical odor conditioning of the proboscis extension reflex were functionally analyzed by repeated intracellular recordings from a single identified neuron (PE1-neuron) in the central bee brain. This neuron belongs to the class of "extrinsic cells" arising from the pedunculus of the mushroom bodies and has extensive arborizations in the median and lateral protocerebrum. The recordings were performed on isolated bee heads. 2. Two different series of physiological experiments were carried out with the use of a similar temporal succession of stimuli as in previous behavioral experiments. In the first series, one group of animals was used for a single conditioning trial [conditioned stimulus (CS), carnation; unconditioned stimulus (US), sucrose solution to the antennae and proboscis), a second group was used for sensitization (sensitizing stimulus, sucrose solution to the antennae and/or proboscis), and the third group served as control (no sucrose stimulation). In the second series, a differential conditioning paradigm (paired odor CS+, carnation; unpaired odor CS-, orange blossom) was applied to test the associative nature of the conditioning effect. 3. The PE1-neuron showed a characteristic burstlike odor response before the training procedures. The treatments resulted in different spike-frequency modulations of this response, which were specific for the nonassociative and associative stimulus paradigms applied. During differential conditioning, there are dynamic up and down modulations of spike frequencies and of the DC potentials underlying the responses to the CS+. Overall, only transient changes in the minute range were observed. 4. The results of the sensitization procedures suggest two qualitatively different US pathways. The comparison between sensitization and one-trial conditioning shows differential effects of nonassociative and associative stimulus paradigms on the response behavior of the PE1-neuron. The results of the differential conditioning procedure reveal that the effect observed for the one-trial conditioning paradigm is of an associative nature and that there might be modulations, which are specific for single and multiple trial conditioning procedures. It is hypothesized that the PE1-neuron is a possible element involved in the short-term acquisition, rather than in the long-term storage, of an associative olfactory memory in the honeybee.
摘要
  1. 通过对蜜蜂中枢脑内单个已识别神经元(PE1神经元)进行重复的细胞内记录,对长吻伸反射的致敏作用和经典气味条件作用进行了功能分析。该神经元属于源自蘑菇体柄的“外在细胞”类别,在中脑和侧脑叶有广泛的分支。记录在分离的蜜蜂头部进行。2. 使用与先前行为实验中相似的时间序列刺激进行了两个不同系列的生理实验。在第一个系列中,一组动物用于单次条件试验[条件刺激(CS),康乃馨;非条件刺激(US),触角和长吻上的蔗糖溶液],第二组用于致敏(致敏刺激,触角和/或长吻上的蔗糖溶液),第三组作为对照(无蔗糖刺激)。在第二个系列中,应用了差异条件作用范式(配对气味CS +,康乃馨;非配对气味CS -,橙花)来测试条件作用效果的关联性。3. 在训练程序之前,PE1神经元表现出特征性的爆发式气味反应。这些处理导致该反应出现不同的峰频率调制,这对于所应用的非联想和联想刺激范式是特异性的。在差异条件作用期间,峰频率以及对CS +反应的直流电位存在动态的上下调制。总体而言,仅观察到微小范围内的短暂变化。4. 致敏程序的结果表明存在两种性质不同的US通路。致敏与单次条件作用之间的比较显示了非联想和联想刺激范式对PE1神经元反应行为的不同影响。差异条件作用程序的结果表明,单次条件作用范式所观察到效应具有联想性质,并且可能存在针对单次和多次试验条件作用程序的特异性调制。据推测,PE1神经元可能是蜜蜂联想嗅觉记忆短期获取而非长期存储过程中的一个可能元素。

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