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气道疾病的动物模型。

Animal models of airway diseases.

作者信息

Thompson Linda F, Picher Maryse, Blackburn Michael R

机构信息

Oklahoma Medical Research Foundation, Oklahoma City, OK, USA,

出版信息

Subcell Biochem. 2011;55:195-234. doi: 10.1007/978-94-007-1217-1_8.

Abstract

Over the past 20 years, the growing awareness that purinergic signaling events literally shape the immune and inflammatory responses to infection and allergic reactions warranted the development of animal models to assess their importance in vivo in acute lung injury and chronic airway diseases. The pioneer work conducted with the adenosine deaminase (ADA)-deficient mouse provided irrefutable evidence that excess adenosine (ADO) accumulating in the lungs of asthmatic patients, constitutes a powerful mediator of disease severity. These original studies launched the development of murine strains for the two major ectonucleotidases responsible for the generation of airway ADO from ATP release: CD39 and CD73. The dramatic acute lung injury and chronic lung complications, manifested by these knockout mice in response to allergens and endotoxin, demonstrated the critical importance of regulating the availability of ATP and ADO for their receptors. Therapeutic targets are currently evaluated using knockout mice and agonists/antagonists for each ADO receptor (A(1)R, A(2A)R, A(2B)R, and A(3)R) and the predominant ATP receptors (P2Y(2)R and P2X(7)R). This chapter provides an in-depth description of each in vivo study, and a critical view of the therapeutic potentials for the treatment of airway diseases.

摘要

在过去20年里,人们越来越意识到嘌呤能信号传导事件实际上塑造了对感染和过敏反应的免疫和炎症反应,这促使人们开发动物模型来评估其在急性肺损伤和慢性气道疾病体内的重要性。对腺苷脱氨酶(ADA)缺陷小鼠进行的开创性研究提供了无可辩驳的证据,表明哮喘患者肺部积累的过量腺苷(ADO)是疾病严重程度的有力介质。这些最初的研究推动了针对两种主要外切核苷酸酶的小鼠品系的开发,这两种酶负责从ATP释放中产生气道ADO:CD39和CD73。这些基因敲除小鼠在接触过敏原和内毒素时表现出的严重急性肺损伤和慢性肺部并发症,证明了调节ATP和ADO对其受体可用性的至关重要性。目前正在使用基因敲除小鼠以及针对每种ADO受体(A(1)R、A(2A)R、A(2B)R和A(3)R)和主要ATP受体(P2Y(2)R和P2X(7)R)的激动剂/拮抗剂来评估治疗靶点。本章深入描述了每项体内研究,并对气道疾病治疗的潜在治疗方法进行了批判性审视。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/b3b1/7121130/c6e3648bd608/217009_1_En_8_Fig1_HTML.jpg

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