Department of Molecular Neurobiology of Behaviour, University of Göttingen, Göttingen 37077, Germany
Department of Neuroscience, Brown University, Providence, Rhode Island 02806, USA
Learn Mem. 2024 Jun 11;31(5). doi: 10.1101/lm.053827.123. Print 2024 May.
In 1998, a special edition of was published with a discrete focus of synthesizing the state of the field to provide an overview of the function of the insect mushroom body. While molecular neuroscience and optical imaging of larger brain areas were advancing, understanding the basic functioning of neuronal circuits, particularly in the context of the mushroom body, was rudimentary. In the past 25 years, technological innovations have allowed researchers to map and understand the in vivo function of the neuronal circuits of the mushroom body system, making it an ideal model for investigating the circuit basis of sensory encoding, memory formation, and behavioral decisions. Collaborative efforts within the community have played a crucial role, leading to an interactive connectome of the mushroom body and accessible genetic tools for studying mushroom body circuit function. Looking ahead, continued technological innovation and collaborative efforts are likely to further advance our understanding of the mushroom body and its role in behavior and cognition, providing insights that generalize to other brain structures and species.
1998 年,出版了一期特刊,专门集中精力综合该领域的现状,概述昆虫蘑菇体的功能。虽然分子神经科学和更大脑区的光学成像技术在不断进步,但对神经元回路的基本功能,特别是在蘑菇体的背景下,了解得还很初步。在过去的 25 年中,技术创新使研究人员能够绘制和理解蘑菇体系统的神经元回路的在体功能,使其成为研究感觉编码、记忆形成和行为决策的电路基础的理想模型。该领域内的合作研究发挥了至关重要的作用,构建了蘑菇体的交互式连接组图谱,并提供了用于研究蘑菇体电路功能的可及遗传工具。展望未来,持续的技术创新和合作研究很可能会进一步增进我们对蘑菇体及其在行为和认知中的作用的理解,为其他脑结构和物种提供具有普遍性的见解。