Relationships between hippocampal activity and breathing patterns.

Relationships between hippocampal activity and breathing patterns.
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海马活动与呼吸模式之间的关系。

DOI:
10.1016/s0149-7634(97)00010-9
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发表时间:
1998
影响因子:
8.2
通讯作者:
Kristensen,MP
Kristensen,MP
中科院分区:
医学1区
文献类型:
--
作者:
Harper,RM;Poe,GR;Rector,DM;Kristensen,MP

文献摘要

相似文献

哈珀河M.,G. R. POE,D. M.雷科特克里斯汀森。海马活动与呼吸模式的关系。《神经科学生物资料法》第22(2)233-236版,1998年。单细胞放电、EEG活动和伴随呼吸模式改变的光学变化,以及呼吸肌组织与运动和其他行为行为密切相关的知识,在呼吸控制的某些方面涉及海马区。这种控制不太可能存在于振荡呼吸运动中,因为这种模式出现在只保留髓质(也许只保留脊髓)的制剂中。然而,呼吸模式的瞬间变化引起的影响,惊吓,全身运动的变化,或补偿性的变化介导的吻侧脑区可能取决于海马行动的控制方面。海马活性增强之前,叹息,这种增强是伴随着增加慢θ活动。在呼吸暂停期间,在恢复呼吸之前,θ频率增加。考虑海马对呼吸控制的贡献,应该在血压变化和通气之间存在显著相互作用的背景下进行,并且适度的呼吸挑战,如暴露于高碳酸血症或增加阻力负荷,会使涉及几乎每一个水平的神经轴的大量大脑区域发挥作用。
HARPER, R. M., G. R. POE, D. M. RECTOR, M. P. KRISTENSEN. Relationships between hippocampal activity and breathing patterns. NEUROSCI BIOBEHAV REV 22(2) 233–236, 1998.—Single cell discharge, EEG activity, and optical changes accompanying alterations in breathing patterns, as well as the knowledge that respiratory musculature is heavily involved in movement and other behavioral acts, implicate hippocampal regions in some aspects of breathing control. The control is unlikely to reside in oscillatory breathing movements, because such patterns emerge in preparations retaining only the medulla (and perhaps only the spinal cord). However, momentary changes in breathing patterns induced by affect, startle, whole-body movement changes, or compensatory ventilatory changes mediated by rostral brain regions likely depend on hippocampal action in aspects of control. Hippocampal activity was enhanced prior to sighs, and this enhancement was accompanied by increased slow theta activity. Theta frequency increased during apnea, prior to return of breathing. Consideration of hippocampal contributions to breathing control should be viewed in the context that significant interactions exist between blood pressure changes and ventilation, and that modest breathing challenges, such as exposure to hypercapnia or to increased resistive loads, bring into action a vast array of brain regions involving nearly every level of the neuraxis.