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An odorant-suppressible chloride conductance mediates inhibitory receptor potentials in lobster olfactory receptor neurons.

机译:可抑制气味的氯化物电导介导龙虾嗅觉受体神经元中的抑制性受体电位。

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摘要

Understanding the cellular events that mediate olfactory transduction has been a major focus of olfactory research. This course of discovery revealed that all animals do not necessarily use the same mechanisms to transduce odorant information. However, general principles of olfactory organization apparently exist that transcend this mechanistic diversity. These organizational principles presumably reflect the response of animals to the common challenge inherent in detecting odorant stimuli. Knowing how mechanistic diversity is encompassed in a set of common organizational principles should ultimately facilitate our understanding of how animals detect and discriminate odorant information.; This body of work characterizes an odorant-suppressible Cl- conductance in lobster olfactory receptor neurons. The conductance, which has a novel pharmacology and is cyclic nucleotide dependent, serves to negatively regulate, or inhibit, the output of the receptor cell. The lack of odorant specificity associated with this conductance suggests that it plays a more general role in olfactory coding, and doesn't mediate the input of a particular subset of inhibitory odorants. In a more general context, this conductance is the first example of an odorant-suppressible Cl- conductance mediated by cyclic nucleotide signaling.
机译:理解介导嗅觉转导的细胞事件一直是嗅觉研究的主要重点。这一发现过程表明,并非所有动物都必须使用相同的机制来转换气味信息。但是,显然存在超越这种机械多样性的嗅觉组织的一般原理。这些组织原理大概反映了动物对检测气味刺激物固有的普遍挑战的反应。了解一组通用组织原则中如何包含机械多样性,最终将有助于我们理解动物如何检测和区分加味剂信息。这项工作的特点是在龙虾嗅觉受体神经元中可抑制气味的Cl电导。电导具有新颖的药理作用并且是环核苷酸依赖性的,用于负调节或抑制受体细胞的输出。与这种电导率相关的气味特异性的缺乏表明它在嗅觉编码中起着更普遍的作用,并且不介导特定的抑制性气味子集的输入。在更一般的情况下,这种电导率是通过环状核苷酸信号传导介导的可抑制气味的Cl电导率的第一个例子。

著录项

  • 作者

    Doolin, Richard Edward.;

  • 作者单位

    University of Florida.;

  • 授予单位 University of Florida.;
  • 学科 Biology Neuroscience.
  • 学位 Ph.D.
  • 年度 2002
  • 页码 94 p.
  • 总页数 94
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 神经科学;
  • 关键词

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