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二价血凝素和神经氨酸酶流感复制子颗粒疫苗可预防猪流感病毒感染而不引起疫苗相关增强性呼吸道疾病。

Bivalent hemagglutinin and neuraminidase influenza replicon particle vaccines protect pigs against influenza a virus without causing vaccine associated enhanced respiratory disease.

机构信息

Virus and Prion Research Unit, National Animal Disease Center, USDA-ARS, Ames, IA 50010, United States.

Merck Animal Health, De Soto, KS 66018, United States.

出版信息

Vaccine. 2022 Sep 9;40(38):5569-5578. doi: 10.1016/j.vaccine.2022.07.042. Epub 2022 Aug 18.

DOI:10.1016/j.vaccine.2022.07.042
PMID:35987871
Abstract

Alphavirus-derived RNA replicon particle (RP) vaccines represent the next generation of swine influenza A virus (IAV) vaccines, as they were shown to be safe, effective, and offer advantages over traditional vaccine platforms. IAV is a significant respiratory pathogen of swine and there is a critical need to improve current commercial swine IAV vaccine platforms. Adjuvanted whole inactivated virus (WIV) IAV swine vaccines provide limited heterologous protection and may lead to vaccine-associated enhanced respiratory disease (VAERD). This study investigated the ability of RP IAV hemagglutinin (HA) vaccines to avoid VAERD and evaluated experimental multivalent HA and neuraminidase (NA) RP vaccines. RP vaccines were formulated with HA or NA heterologous or homologous to the challenge virus in monovalent HA or HA and NA bivalent combinations (HA/NA bivalent). Pigs were vaccinated with an HA RP, HA/NA bivalent RP, or heterologous HA WIV, followed by IAV challenge and necropsy 5 days post infection. RP vaccines provided homologous protection from challenge and induced robust peripheral and local antibody responses. The RP vaccine did not induce VAERD after challenge with a virus containing the heterologous HA, in contrast to the traditional WIV vaccine. The HA monovalent and HA/NA bivalent RP vaccines showed superior protection compared to traditional WIV. Additionally, the RP platform allows greater flexibility to adjust HA and NA content to reflect circulating IAV in swine antigenic diversity.

摘要

基于甲病毒的 RNA 复制子颗粒(RP)疫苗代表了下一代甲型流感病毒(IAV)疫苗,因为它们已被证明是安全、有效,并具有优于传统疫苗平台的优势。IAV 是一种重要的猪呼吸道病原体,迫切需要改进当前的商业猪 IAV 疫苗平台。佐剂全灭活病毒(WIV)IAV 猪疫苗提供有限的异源保护作用,并且可能导致疫苗相关增强性呼吸道疾病(VAERD)。本研究调查了 RP IAV 血凝素(HA)疫苗避免 VAERD 的能力,并评估了实验性多价 HA 和神经氨酸酶(NA)RP 疫苗。RP 疫苗与挑战病毒的 HA 或 NA 异源或同源的 HA 单价或 HA 和 NA 双价组合(HA/NA 双价)进行配制。接种 HA RP、HA/NA 双价 RP 或异源 HA WIV 疫苗后,对猪进行 IAV 攻毒,并在感染后 5 天进行剖检。RP 疫苗对挑战病毒提供同源保护,并诱导出强大的外周和局部抗体反应。与传统的 WIV 疫苗不同,RP 疫苗在接种含有异源 HA 的病毒后不会引起 VAERD。与传统的 WIV 相比,HA 单价和 HA/NA 双价 RP 疫苗显示出更好的保护效果。此外,RP 平台允许更大的灵活性来调整 HA 和 NA 的含量,以反映猪群中循环 IAV 的抗原多样性。

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