阿片类药物诱导的呼吸抑制:呼吸网络效应的临床方面和病理生理。

IF 3.6 2区 医学 Q1 PHYSIOLOGY
Brian A Baldo
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引用次数: 0

摘要

对于阿片类药物诱导的呼吸抑制(OIRD)的风险预测、呼吸抑制逆转(RD)、OIRD的病理生理以及哪些部位对其诱导做出了最重要的贡献,目前仍缺乏重要的见解和共识。对吸入二氧化碳的通气反应是OIRD最敏感的生物标志物。为了准确预测呼吸抑制(RD),进行了一项多变量RD前瞻性试验,使用连续血糖仪和血氧仪检查5个自变量:年龄≥60岁、性别、阿片类药物幼稚、睡眠障碍和慢性心衰(PRODIGY试验)。单独使用间歇性血氧测定法大大低估了RD的发生率。纳洛酮的消除半衰期为~33分钟(c.f.吗啡2-3小时;芬太尼及同系物仅5-15分钟)对重症OIRD患者的抢救有局限性。丁丙诺啡对长期治疗的患者具有潜在的价值,因为它的高μ受体(MOR)亲和力使得低亲和力的阿片类药物(例如芬太尼)难以从受体中取代它。在过去十年中,合成阿片类药物,如芬太尼,其强效类似物,如卡芬太尼和苯并咪唑衍生物nitazene“超级激动剂”,导致阿片类药物因RD导致的死亡呈指数增长。由基因Oprm1编码的MOR在中枢和外周神经系统中广泛表达,包括调节呼吸的中枢。阿片样物质与受体结合,但对于哪个位点对诱导OIRD最重要的贡献缺乏共识。吸气节律发生器preBötzinger复合体(preBötC)和呼吸调节剂Kölliker-Fuse核(KFN)都参与RD,但受体结合并不局限于单一位点。呼吸由吸气、吸气后和主动呼气三个阶段组成,每个阶段都由不同的节奏生成网络产生:preBötC、吸气后复合体(PiCo)和外侧面旁核(pF L)。表达生长抑素的小鼠细胞参与呼吸调节,不参与阿片类药物诱导的RD。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Opioid-induced respiratory depression: clinical aspects and pathophysiology of the respiratory network effects.

Important insights and consensus remain lacking for risk prediction of opioid-induced respiratory depression (OIRD), reversal of respiratory depression (RD), the pathophysiology of OIRD, and which sites make the most significant contribution to its induction. The ventilatory response to inhaled carbon dioxide is the most sensitive biomarker of OIRD. To accurately predict respiratory depression (RD), a multivariant RD prospective trial using continuous capnography and oximetry examining five independent variables, age ≥60, sex, opioid naivety, sleep disorders, and chronic heart failure (PRODIGY trial), were undertaken. Intermittent oximetry alone substantially underestimates the incidence of RD. Naloxone, with an elimination half-life of ∼33 min (cf. morphine 2-3 h; fentanyl and congeners only 5-15 min), has limitations for the rescue of patients with severe OIRD. Buprenorphine is potentially valuable in patients being treated long term since its high µ-receptor (MOR) affinity makes it difficult for an opioid of lower affinity (e.g., fentanyl) to displace it from the receptor. In the last decade, synthetic opioids, for example, fentanyl, its potent analogs such as carfentanil, and the benzimidazole derivative nitazene "superagonists" have contributed to the exponential growth in opioid deaths due to RD. The MOR, encoded by gene Oprm1, is widely expressed in the central and peripheral nervous systems, including centers that modulate breathing. Opioids bind to the receptors, but consensus is lacking on which site(s) makes the most significant contribution to the induction of OIRD. Both the preBötzinger complex (preBötC), the inspiratory rhythm generator, and the Kölliker-Fuse nucleus (KFN), the respiratory modulator, contribute to RD, but receptor binding is not restricted to a single site. Breathing is composed of three phases, inspiration, postinspiration, and active expiration, each generated by distinct rhythm-generating networks: the preBötC, the postinspiratory complex (PiCo), and the lateral parafacial nucleus (pFL), respectively. Somatostatin-expressing mouse cells involved in breathing regulation are not involved in opioid-induced RD.

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来源期刊
CiteScore
9.20
自引率
4.10%
发文量
146
审稿时长
2 months
期刊介绍: The American Journal of Physiology-Lung Cellular and Molecular Physiology publishes original research covering the broad scope of molecular, cellular, and integrative aspects of normal and abnormal function of cells and components of the respiratory system. Areas of interest include conducting airways, pulmonary circulation, lung endothelial and epithelial cells, the pleura, neuroendocrine and immunologic cells in the lung, neural cells involved in control of breathing, and cells of the diaphragm and thoracic muscles. The processes to be covered in the Journal include gas-exchange, metabolic control at the cellular level, intracellular signaling, gene expression, genomics, macromolecules and their turnover, cell-cell and cell-matrix interactions, cell motility, secretory mechanisms, membrane function, surfactant, matrix components, mucus and lining materials, lung defenses, macrophage function, transport of salt, water and protein, development and differentiation of the respiratory system, and response to the environment.
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