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禽呼肠孤病毒的致病性和抗原性评估及通过疫苗接种进行疾病控制

Evaluation of Pathogenicity and Antigenicity of Avian Reoviruses and Disease Control Through Vaccination.

作者信息

Markis Milos

机构信息

AviServe LLC, Newark, DE 19711,

出版信息

Avian Dis. 2022 Dec;66(4):435-442. doi: 10.1637/aviandiseases-D-22-99994.

DOI:10.1637/aviandiseases-D-22-99994
PMID:36715476
Abstract

Avian reoviruses are ubiquitous in poultry production worldwide and can be transmitted vertically or horizontally among chickens. The pathogenicity of reoviruses can range from very pathogenic viruses that affect multiple tissues and organs to apathogenic. Avian reoviruses have been associated with many disease presentations, and two of the most economically significant diseases are viral arthritis/tenosynovitis and viral enteritis. Viral arthritis/tenosynovitis has been recognized since the 1950s and essentially disappeared after development of attenuated live and inactivated vaccines in the 1980s but re-emerged in 2011 due to the emergence of antigenic variants. Viral enteritis was first recognized in the 1970s and became the predominant reovirus-associated disease between 2006 and 2011 due to the emergence of pathogenic enterotropic reoviruses. Pathogenicity of reovirus isolates can be evaluated in several ways, including inoculation of day-old broiler chicks with low maternal reovirus antibody titers via the foot pad route or the oral and intratracheal route. Pathogenic reoviruses induce foot pad inflammation within 3 days of inoculation, and more pathogenic reoviruses are able to disseminate to and damage visceral organs. Only reovirus infections in young chickens result in disease due to age-related resistance to disease development. Reoviruses exist as many serotypes and subtypes with various degrees of interrelatedness. The earliest reovirus strains in the United States were antigenically related to each other and are referred to as S1133-like viruses, but in the 2000s, reoviruses emerged that were antigenically different from the S1133-like viruses. Virus neutralization assay using polyclonal antisera has been used to classify the emerging variant reoviruses into serogroups. The first reovirus vaccines were developed in the 1970s, and by the 1980s breeder vaccination programs were established that protected breeders, prevented vertical transmission of reovirus, and provided maternal immunity to the progeny during the crucial first 3 wk of life. With the emergence of antigenic variant reoviruses in the 2000s, vaccination programs using S1133-like vaccines became ineffective. The poultry industry has relied on vaccination with autogenous inactivated reovirus vaccines to alleviate losses due to viral arthritis/tenosynovitis and viral enteritis. Virus isolates used for autogenous vaccines must be updated regularly and are selected based on pathotype, serotype, or Sigma C (σC) genotype. Live attenuated S1133 vaccines are still used in breeder chickens for the priming effect, followed by one or more injections of the inactivated licensed and/or autogenous vaccines. The route of vaccination and the number of doses received by breeder chickens are very important for a sufficient antibody response. Intramuscular vaccination with inactivated vaccines elicits the highest antibody response, while subcutaneous vaccination with inactivated vaccines elicits a low antibody response. More recently, research has focused on development of alternative vaccines and vaccination strategies. An inactivated variant reovirus vaccine was developed that elicits protection against multiple variant serotypes, and experimental recombinant and subunit vaccines have been described and show potential. More research needs to be done to develop better vaccines, vaccination programs, and other control measures for preventing reovirus infection, transmission, and losses due to disease.

摘要

禽呼肠孤病毒在全球家禽生产中普遍存在,可在鸡群中垂直或水平传播。呼肠孤病毒的致病性范围很广,从影响多个组织和器官的高致病性病毒到无致病性病毒。禽呼肠孤病毒与许多疾病表现相关,其中两种对经济影响最大的疾病是病毒性关节炎/腱鞘炎和病毒性肠炎。病毒性关节炎/腱鞘炎自20世纪50年代被认识,在20世纪80年代减毒活疫苗和灭活疫苗研发后基本消失,但由于抗原变异体的出现于2011年再次出现。病毒性肠炎于20世纪70年代首次被认识,由于致病性肠道嗜性呼肠孤病毒的出现,在2006年至2011年间成为与呼肠孤病毒相关的主要疾病。呼肠孤病毒分离株的致病性可以通过多种方式评估,包括通过脚垫途径或经口和气管内途径接种母源呼肠孤病毒抗体滴度低的1日龄肉鸡雏鸡。致病性呼肠孤病毒在接种后3天内引起脚垫炎症,致病性更强的呼肠孤病毒能够扩散到内脏器官并造成损害。由于幼鸡对疾病发展具有年龄相关的抵抗力,只有幼鸡的呼肠孤病毒感染会导致疾病。呼肠孤病毒以许多血清型和亚型存在,它们之间具有不同程度的相关性。美国最早的呼肠孤病毒株在抗原上相互关联,被称为S1133样病毒,但在21世纪,出现了与S1133样病毒抗原不同的呼肠孤病毒。使用多克隆抗血清的病毒中和试验已被用于将新出现的变异呼肠孤病毒分类到血清群中。第一批呼肠孤病毒疫苗于20世纪70年代研发出来,到20世纪80年代建立了种鸡疫苗接种计划,该计划保护种鸡,防止呼肠孤病毒垂直传播,并在雏鸡生命的关键前三周为其提供母源免疫力。随着21世纪抗原变异呼肠孤病毒的出现,使用S1133样疫苗的疫苗接种计划变得无效。家禽业依靠接种自体灭活呼肠孤病毒疫苗来减轻因病毒性关节炎/腱鞘炎和病毒性肠炎造成的损失。用于自体疫苗的病毒分离株必须定期更新,并根据致病型、血清型或西格玛C(σC)基因型进行选择。减毒活S1133疫苗仍用于种鸡以产生启动效应,随后接种一剂或多剂已获许可的和/或自体灭活疫苗。种鸡的接种途径和接种剂量对产生足够的抗体反应非常重要。肌肉注射灭活疫苗引发的抗体反应最高,而皮下注射灭活疫苗引发的抗体反应较低。最近,研究集中在替代疫苗和接种策略的研发上。一种灭活变异呼肠孤病毒疫苗已研发出来,可引发针对多种变异血清型的保护作用,并且已经描述了实验性重组疫苗和亚单位疫苗并显示出潜力。需要开展更多研究以研发出更好的疫苗、疫苗接种计划和其他防控措施,以预防呼肠孤病毒感染、传播以及疾病造成的损失。

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