[Mechanisms of dyspnea].

IF 1.7
Pneumologie (Stuttgart, Germany) Pub Date : 2026-06-01 Epub Date: 2026-03-13 DOI:10.1055/a-2803-7306
Arber Gashi, Andreas Bastian, Andreas Günther, Achim Gruenewaldt, Matthias Held, Martin Hetzel, Stefan Krüger, Winfried Randerath, Andreas Schlesinger, Georgios Sofianos, Markus Unnewehr, Thomas Voshaar, Georg Nilius, Dominic Dellweg
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引用次数: 0

Abstract

Abstract: Dyspnea has many possible causes and, like pain, is felt in different qualities. Afferent signals originate from the chemoreceptors (pH, O2 and CO2) as well as from mechanoreceptors in the lungs, respiratory muscles and thorax. Complexity arises from the fact that both blood gases and the acid-base balance have to be regulated. There is almost always a combination of afferent incoming signals, which can reinforce each other but also determine the quality of the dyspnea experienced. In humans, O2 is mainly measured peripherally, whereas CO2 and pH are measured centrally. The areas of the brain involved in regulation are largely located in the brain stem, but cortical areas are also involved in the perception of dyspnea.The majority of patients experience a feeling of air hunger as the main discomfort. Subsequently, this results in emotional processing with the components of anxiety, frustration and fear.

[呼吸困难的机制]。
呼吸困难有许多可能的原因,像疼痛一样,有不同程度的感觉。传入信号来源于化学感受器(pH、O2和CO2)以及肺、呼吸肌和胸腔的机械感受器。复杂性来自于血气和酸碱平衡都必须被调节这一事实。几乎总是有传入信号的组合,它们可以相互加强,但也决定了所经历的呼吸困难的质量。在人类中,氧气主要是外围测量,而二氧化碳和pH值是中心测量。参与调节的大脑区域主要位于脑干,但皮质区域也参与呼吸困难的感知。大多数病人的主要不适是感到空气饥饿。随后,这导致了焦虑、沮丧和恐惧的情绪处理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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