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《热抗性与毒力之间的潜在联系:综述》 (你提供的原文中":"前缺少具体内容,这是根据现有文本尽量完善后的翻译)

The Potential Link between Thermal Resistance and Virulence in : A Review.

作者信息

Dawoud Turki M, Davis Morgan L, Park Si Hong, Kim Sun Ae, Kwon Young Min, Jarvis Nathan, O'Bryan Corliss A, Shi Zhaohao, Crandall Philip G, Ricke Steven C

机构信息

Cell and Molecular Biology Program, University of Arkansas, Fayetteville, AR, United States.

Center for Food Safety, University of Arkansas, Fayetteville, AR, United States.

出版信息

Front Vet Sci. 2017 Jun 14;4:93. doi: 10.3389/fvets.2017.00093. eCollection 2017.

Abstract

In some animals, the typical body temperature can be higher than humans, for example, 42°C in poultry and 40°C in rabbits which can be a potential thermal stress challenge for pathogens. Even in animals with lower body temperatures, when infection occurs, the immune system may increase body temperature to reduce the chance of survival for pathogens. However, some pathogens can still easily overcome higher body temperatures and/or rise in body temperatures through expression of stress response mechanisms. is the causative agent of one of the most prevalent foodborne illnesses, salmonellosis, and can readily survive over a wide range of temperatures due to the efficient expression of the heat (thermal) stress response. Therefore, thermal resistance mechanisms can provide cross protection against other stresses including the non-specific host defenses found within the human body thus increasing pathogenic potential. Understanding the molecular mechanisms associated with thermal responses in is crucial in designing and developing more effective or new treatments for reducing and eliminating infection caused by that have survived heat stress. In this review, thermal resistance is assessed followed by an overview of the thermal stress responses with a focus on gene regulation by sigma factors, heat shock proteins, along with the corresponding thermosensors and their association with virulence expression including a focus on a potential link between heat resistance and potential for infection.

摘要

在一些动物中,典型体温可能高于人类,例如,家禽体温为42°C,兔子体温为40°C,这对病原体而言可能是潜在的热应激挑战。即使在体温较低的动物中,感染发生时,免疫系统可能会提高体温以降低病原体的存活几率。然而,一些病原体仍可通过应激反应机制的表达轻易克服较高体温和/或体温升高。沙门氏菌是最常见的食源性疾病之一沙门氏菌病的病原体,由于高效表达热(温度)应激反应,它能在很宽的温度范围内轻易存活。因此,耐热机制可提供针对其他应激的交叉保护,包括人体中的非特异性宿主防御,从而增加致病潜力。了解与沙门氏菌热反应相关的分子机制对于设计和开发更有效或新的治疗方法以减少和消除由耐热应激的沙门氏菌引起的感染至关重要。在本综述中,评估了沙门氏菌的耐热性,接着概述了热应激反应,重点是西格玛因子、热休克蛋白的基因调控,以及相应的热传感器及其与毒力表达的关联,包括关注耐热性与感染潜力之间的潜在联系。

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