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成年工蜂蕈形体中固有神经元与经验和年龄相关的生长

Experience- and age-related outgrowth of intrinsic neurons in the mushroom bodies of the adult worker honeybee.

作者信息

Farris S M, Robinson G E, Fahrbach S E

机构信息

Department of Entomology and the Neuroscience Program, University of Illinois at Urbana-Champaign, Urbana, Illinois 61801, USA.

出版信息

J Neurosci. 2001 Aug 15;21(16):6395-404. doi: 10.1523/JNEUROSCI.21-16-06395.2001.

DOI:10.1523/JNEUROSCI.21-16-06395.2001
PMID:11487663
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6763189/
Abstract

A worker honeybee performs tasks within the hive for approximately the first 3 weeks of adult life. After this time, it becomes a forager, flying repeatedly to collect food outside of the hive for the remainder of its 5-6 week life. Previous studies have shown that foragers have an increased volume of neuropil associated with the mushroom bodies, a brain region involved in learning, memory, and sensory integration. We report here that growth of the mushroom body neuropil in adult bees occurs throughout adult life and continues after bees begin to forage. Studies using Golgi impregnation asked whether the growth of the collar region of the mushroom body neuropil was a result of growth of the dendritic processes of the mushroom body intrinsic neurons, the Kenyon cells. Branching and length of dendrites in the collar region of the calyces were strongly correlated with worker age, but when age-matched bees were directly compared, those with foraging experience had longer, more branched dendrites than bees that had foraged less or not at all. The density of Kenyon cell dendritic spines remained constant regardless of age or behavioral state. Older and more experienced foragers therefore have a greater total number of dendritic spines in the mushroom body neuropil. Our findings indicate that, under natural conditions, the cytoarchitectural complexity of neurons in the mushroom bodies of adult honeybees increases as a function of increasing age, but that foraging experience promotes additional dendritic branching and growth.

摘要

工蜂在成年后的大约前三周内在蜂巢内执行任务。在此之后,它成为一名觅食者,在其5 - 6周的余生中反复飞到蜂巢外采集食物。先前的研究表明,觅食者与蘑菇体相关的神经纤维网体积增加,蘑菇体是大脑中参与学习、记忆和感觉整合的区域。我们在此报告,成年蜜蜂蘑菇体神经纤维网的生长在成年期全程都会发生,并且在蜜蜂开始觅食后仍会继续。使用高尔基染色法的研究探讨了蘑菇体神经纤维网的颈区生长是否是蘑菇体固有神经元(肯扬细胞)树突过程生长的结果。萼部颈区的树突分支和长度与工蜂年龄密切相关,但当直接比较年龄匹配的蜜蜂时,有觅食经验的蜜蜂比觅食较少或根本没有觅食的蜜蜂具有更长、分支更多的树突。无论年龄或行为状态如何,肯扬细胞树突棘的密度保持恒定。因此,年龄较大且经验更丰富的觅食者在蘑菇体神经纤维网中具有更多的树突棘总数。我们的研究结果表明,在自然条件下,成年蜜蜂蘑菇体中神经元的细胞结构复杂性会随着年龄的增长而增加,但觅食经验会促进额外的树突分支和生长。