儿童麻疹、腮腺炎、风疹和水痘疫苗。
Vaccines for measles, mumps, rubella, and varicella in children.
机构信息
Servizio Regionale di Riferimento per l'Epidemiologia, SSEpi-SeREMI, Azienda Sanitaria Locale ASL AL, Alessandria, Italy.
Dipartimento di Prevenzione - S.Pre.S.A.L, ASL CN2 Alba Bra, Alba, Italy.
出版信息
Cochrane Database Syst Rev. 2021 Nov 22;11(11):CD004407. doi: 10.1002/14651858.CD004407.pub5.
BACKGROUND
Measles, mumps, rubella, and varicella (chickenpox) are serious diseases that can lead to serious complications, disability, and death. However, public debate over the safety of the trivalent MMR vaccine and the resultant drop in vaccination coverage in several countries persists, despite its almost universal use and accepted effectiveness. This is an update of a review published in 2005 and updated in 2012.
OBJECTIVES
To assess the effectiveness, safety, and long- and short-term adverse effects associated with the trivalent vaccine, containing measles, rubella, mumps strains (MMR), or concurrent administration of MMR vaccine and varicella vaccine (MMR+V), or tetravalent vaccine containing measles, rubella, mumps, and varicella strains (MMRV), given to children aged up to 15 years.
SEARCH METHODS
We searched the Cochrane Central Register of Controlled Trials (CENTRAL) (the Cochrane Library 2019, Issue 5), which includes the Cochrane Acute Respiratory Infections Group's Specialised Register, MEDLINE (1966 to 2 May 2019), Embase (1974 to 2 May 2019), the WHO International Clinical Trials Registry Platform (2 May 2019), and ClinicalTrials.gov (2 May 2019).
SELECTION CRITERIA
We included randomised controlled trials (RCTs), controlled clinical trials (CCTs), prospective and retrospective cohort studies (PCS/RCS), case-control studies (CCS), interrupted time-series (ITS) studies, case cross-over (CCO) studies, case-only ecological method (COEM) studies, self-controlled case series (SCCS) studies, person-time cohort (PTC) studies, and case-coverage design/screening methods (CCD/SM) studies, assessing any combined MMR or MMRV / MMR+V vaccine given in any dose, preparation or time schedule compared with no intervention or placebo, on healthy children up to 15 years of age.
DATA COLLECTION AND ANALYSIS
Two review authors independently extracted data and assessed the methodological quality of the included studies. We grouped studies for quantitative analysis according to study design, vaccine type (MMR, MMRV, MMR+V), virus strain, and study settings. Outcomes of interest were cases of measles, mumps, rubella, and varicella, and harms. Certainty of evidence of was rated using GRADE.
MAIN RESULTS
We included 138 studies (23,480,668 participants). Fifty-one studies (10,248,159 children) assessed vaccine effectiveness and 87 studies (13,232,509 children) assessed the association between vaccines and a variety of harms. We included 74 new studies to this 2019 version of the review. Effectiveness Vaccine effectiveness in preventing measles was 95% after one dose (relative risk (RR) 0.05, 95% CI 0.02 to 0.13; 7 cohort studies; 12,039 children; moderate certainty evidence) and 96% after two doses (RR 0.04, 95% CI 0.01 to 0.28; 5 cohort studies; 21,604 children; moderate certainty evidence). The effectiveness in preventing cases among household contacts or preventing transmission to others the children were in contact with after one dose was 81% (RR 0.19, 95% CI 0.04 to 0.89; 3 cohort studies; 151 children; low certainty evidence), after two doses 85% (RR 0.15, 95% CI 0.03 to 0.75; 3 cohort studies; 378 children; low certainty evidence), and after three doses was 96% (RR 0.04, 95% CI 0.01 to 0.23; 2 cohort studies; 151 children; low certainty evidence). The effectiveness (at least one dose) in preventing measles after exposure (post-exposure prophylaxis) was 74% (RR 0.26, 95% CI 0.14 to 0.50; 2 cohort studies; 283 children; low certainty evidence). The effectiveness of Jeryl Lynn containing MMR vaccine in preventing mumps was 72% after one dose (RR 0.24, 95% CI 0.08 to 0.76; 6 cohort studies; 9915 children; moderate certainty evidence), 86% after two doses (RR 0.12, 95% CI 0.04 to 0.35; 5 cohort studies; 7792 children; moderate certainty evidence). Effectiveness in preventing cases among household contacts was 74% (RR 0.26, 95% CI 0.13 to 0.49; 3 cohort studies; 1036 children; moderate certainty evidence). Vaccine effectiveness against rubella, using a vaccine with the BRD2 strain which is only used in China, is 89% (RR 0.11, 95% CI 0.03 to 0.42; 1 cohort study; 1621 children; moderate certainty evidence). Vaccine effectiveness against varicella (any severity) after two doses in children aged 11 to 22 months is 95% in a 10 years follow-up (rate ratio (rr) 0.05, 95% CI 0.03 to 0.08; 1 RCT; 2279 children; high certainty evidence). Safety There is evidence supporting an association between aseptic meningitis and MMR vaccines containing Urabe and Leningrad-Zagreb mumps strains, but no evidence supporting this association for MMR vaccines containing Jeryl Lynn mumps strains (rr 1.30, 95% CI 0.66 to 2.56; low certainty evidence). The analyses provide evidence supporting an association between MMR/MMR+V/MMRV vaccines (Jeryl Lynn strain) and febrile seizures. Febrile seizures normally occur in 2% to 4% of healthy children at least once before the age of 5. The attributable risk febrile seizures vaccine-induced is estimated to be from 1 per 1700 to 1 per 1150 administered doses. The analyses provide evidence supporting an association between MMR vaccination and idiopathic thrombocytopaenic purpura (ITP). However, the risk of ITP after vaccination is smaller than after natural infection with these viruses. Natural infection of ITP occur in 5 cases per 100,000 (1 case per 20,000) per year. The attributable risk is estimated about 1 case of ITP per 40,000 administered MMR doses. There is no evidence of an association between MMR immunisation and encephalitis or encephalopathy (rate ratio 0.90, 95% CI 0.50 to 1.61; 2 observational studies; 1,071,088 children; low certainty evidence), and autistic spectrum disorders (rate ratio 0.93, 95% CI 0.85 to 1.01; 2 observational studies; 1,194,764 children; moderate certainty). There is insufficient evidence to determine the association between MMR immunisation and inflammatory bowel disease (odds ratio 1.42, 95% CI 0.93 to 2.16; 3 observational studies; 409 cases and 1416 controls; moderate certainty evidence). Additionally, there is no evidence supporting an association between MMR immunisation and cognitive delay, type 1 diabetes, asthma, dermatitis/eczema, hay fever, leukaemia, multiple sclerosis, gait disturbance, and bacterial or viral infections. AUTHORS' CONCLUSIONS: Existing evidence on the safety and effectiveness of MMR/MMRV vaccines support their use for mass immunisation. Campaigns aimed at global eradication should assess epidemiological and socioeconomic situations of the countries as well as the capacity to achieve high vaccination coverage. More evidence is needed to assess whether the protective effect of MMR/MMRV could wane with time since immunisation.
背景
麻疹、腮腺炎、风疹和水痘(水痘)都是严重的疾病,可导致严重的并发症、残疾和死亡。然而,尽管三价麻疹-腮腺炎-风疹(MMR)疫苗的安全性已得到广泛认可,且其有效性也得到了广泛接受,但在一些国家,仍存在公众对该疫苗安全性的争议,导致疫苗接种率下降。这是对 2005 年发表的一篇综述和 2012 年更新的综述的更新。
目的
评估三价疫苗(含麻疹、风疹、腮腺炎株)或同时接种 MMR 疫苗和水痘疫苗(MMR+V)或四价疫苗(含麻疹、风疹、腮腺炎和水痘株)的有效性、安全性以及长期和短期不良反应,这些疫苗适用于 15 岁以下儿童。
检索方法
我们检索了 Cochrane 中心注册临床试验数据库(Cochrane Library 2019 年第 5 期)(包括 Cochrane 急性呼吸道感染组的专论)、MEDLINE(1966 年至 2019 年 5 月 2 日)、Embase(1974 年至 2019 年 5 月 2 日)、世界卫生组织国际临床试验注册平台(2019 年 5 月 2 日)和 ClinicalTrials.gov(2019 年 5 月 2 日)。
选择标准
我们纳入了随机对照试验(RCT)、对照临床试验(CCT)、前瞻性和回顾性队列研究(PCS/RCS)、病例对照研究(CCS)、中断时间序列(ITS)研究、病例交叉(CCO)研究、病例仅生态学方法(COEM)研究、自我对照病例系列(SCCS)研究、人时队列(PTC)研究和病例覆盖设计/筛选方法(CCD/SM)研究,评估了任何剂量、制剂或时间表下的联合 MMR 或 MMRV/MMR+V 疫苗与无干预或安慰剂相比,对 15 岁以下健康儿童的效果。
数据收集与分析
两名综述作者独立提取数据,并对纳入研究的方法学质量进行评估。我们根据研究设计、疫苗类型(MMR、MMRV、MMR+V)、病毒株和研究环境对研究进行分组,以进行定量分析。研究的结局包括麻疹、腮腺炎、风疹和水痘病例,以及危害。使用 GRADE 对证据的确定性进行评级。
主要结果
我们纳入了 138 项研究(23480668 名参与者)。51 项研究(10248159 名儿童)评估了疫苗的有效性,87 项研究(13232509 名儿童)评估了疫苗与各种危害之间的关联。本综述 2019 年版纳入了 74 项新研究。有效性疫苗在预防麻疹方面的有效性为一剂后 95%(相对风险(RR)0.05,95%CI 0.02 至 0.13;7 项队列研究;12039 名儿童;中等确定性证据),两剂后 96%(RR 0.04,95%CI 0.01 至 0.28;5 项队列研究;21604 名儿童;中等确定性证据)。一剂后预防家庭接触者麻疹病例或预防儿童与接触者之间传播的有效性为 81%(RR 0.19,95%CI 0.04 至 0.89;3 项队列研究;151 名儿童;低确定性证据),两剂后为 85%(RR 0.15,95%CI 0.03 至 0.75;3 项队列研究;378 名儿童;低确定性证据),三剂后为 96%(RR 0.04,95%CI 0.01 至 0.23;2 项队列研究;151 名儿童;低确定性证据)。暴露后(暴露后预防)一剂后的有效性(至少一剂)为 74%(RR 0.26,95%CI 0.14 至 0.50;2 项队列研究;283 名儿童;低确定性证据)。Jeryl Lynn 含麻疹疫苗预防腮腺炎的有效性为一剂后 72%(RR 0.24,95%CI 0.08 至 0.76;6 项队列研究;9915 名儿童;中等确定性证据),两剂后 86%(RR 0.12,95%CI 0.04 至 0.35;5 项队列研究;7792 名儿童;中等确定性证据)。预防家庭接触者腮腺炎病例的有效性为 74%(RR 0.26,95%CI 0.13 至 0.49;3 项队列研究;1036 名儿童;中等确定性证据)。使用仅在中国使用的 BRD2 株的疫苗预防风疹的有效性为 89%(RR 0.11,95%CI 0.03 至 0.42;1 项队列研究;1621 名儿童;中等确定性证据)。在 11 至 22 个月龄的儿童中,两剂 MMR 疫苗对水痘(任何严重程度)的 10 年随访的有效性为 95%(RR 0.05,95%CI 0.03 至 0.08;1 项 RCT;2279 名儿童;高确定性证据)。安全性有证据支持 MMR 疫苗中含 Urabe 和 Leningrad-Zagreb 腮腺炎株与无菌性脑膜炎之间存在关联,但没有证据支持 MMR 疫苗中含 Jeryl Lynn 腮腺炎株与无菌性脑膜炎之间存在关联(RR 1.30,95%CI 0.66 至 2.56;低确定性证据)。分析结果提供了证据支持 MMR/MMR+V/MMRV 疫苗(Jeryl Lynn 株)与热性惊厥之间的关联。热性惊厥通常发生在至少 5 岁前,每 1000 名健康儿童中就有 2%至 4%发生。疫苗引起的热性惊厥归因风险估计为每接种 1700 至 1150 剂疫苗发生 1 例。分析结果提供了证据支持 MMR 疫苗与特发性血小板减少性紫癜(ITP)之间的关联。然而,接种疫苗后发生 ITP 的风险比自然感染这些病毒的风险要小。自然感染 ITP 的发生率为每 100000 人中每年 5 例(每 20000 人中 1 例)。没有证据表明 MMR 免疫接种与脑炎或脑病(RR 0.90,95%CI 0.50 至 1.61;2 项观察性研究;1071088 名儿童;低确定性证据)或自闭症谱系障碍(RR 0.93,95%CI 0.85 至 1.01;2 项观察性研究;1194764 名儿童;中等确定性证据)有关。没有足够的证据确定 MMR 免疫接种与炎症性肠病(OR 1.42,95%CI 0.93 至 2.16;3 项观察性研究;409 例病例和 1416 例对照;中等确定性证据)之间的关联。此外,没有证据支持 MMR 免疫接种与认知延迟、1 型糖尿病、哮喘、皮炎/湿疹、花粉热、白血病、多发性硬化症、步态障碍、细菌或病毒感染之间存在关联。
作者结论
现有关于 MMR/MMRV 疫苗的安全性和有效性证据支持其用于大规模免疫接种。旨在实现全球根除的活动应评估各国的流行病学和社会经济情况以及实现高疫苗接种覆盖率的能力。需要更多证据来评估 MMR/MMRV 的保护作用是否会随时间推移而减弱。
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