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Interventions for the treatment of oral and oropharyngeal cancers: targeted therapy and immunotherapy

机译:治疗口腔和口咽癌的干预措施:靶向治疗和免疫治疗

摘要

Background Oral cancers are the sixth most common cancer worldwide, yet the prognosis following a diagnosis of oral cavity or oropharyngeal cancers remains poor, with approximately 50% survival at five years. Despite a sharp increase in research into molecularly targeted therapies and a rapid expansion in the number of clinical trials assessing new targeted therapies, their value for treating oral cancers is unclear. Therefore, it is important to summarise the evidence to determine the efficacy and toxicity of targeted therapies and immunotherapies for the treatment of these cancers. Objectives To assess the effects of molecularly targeted therapies and immunotherapies, in addition to standard therapies, for the treatment of oral cavity or oropharyngeal cancers. Search methods We searched the following electronic databases: Cochrane Oral Health Group Trials Register (to 3 February 2015), Cochrane Central Register of Controlled Trials (CENTRAL) (The Cochrane Library, 2015, Issue 1), MEDLINE via Ovid (1946 to 3 February 2015) and EMBASE via Ovid (1980 to 3 February 2015). We searched the US National Institutes of Health Trials Register (clinicaltrials.gov), the World Health Organization Clinical Trials Registry Platform, the American Society of Clinical Oncology conference abstracts and the Radiation Therapy Oncology Group clinical trials protocols for ongoing trials. We placed no restrictions on the language or date of publication. Selection criteria We included randomised controlled trials where more than 50% of participants had primary tumours of the oral cavity or oropharynx, and which compared targeted therapy or immunotherapy, plus standard therapy, with standard therapy alone. Data collection and analysis Two review authors independently screened the results of the electronic searches, extracted data and assessed the risk of bias of the included studies. We attempted to contact study authors for missing data or clarification where necessary. We combined sufficiently similar studies in meta-analyses using random-effects models when there were at least four studies and fixed-effect models when fewer than four studies. We obtained or calculated a hazard ratio (HR) and 95% confidence interval (CI) for the primary outcomes where possible. For dichotomous outcomes, we reported risk ratios (RR) and 95% CIs. Main results Twelve trials (2488 participants) satisfied the inclusion criteria. In the included trials, 12% of participants (298 participants) had tumours of the oral cavity and 59% (1468 participants) had oropharyngeal tumours. The remaining 29% had tumours of the larynx or hypopharynx and less than 1% had tumours at other sites. No included trial was at low risk of bias; seven had an unclear risk of bias, and five had a high risk of bias. We grouped trials by intervention type into three main comparisons: standard therapy plus epidermal growth factor receptor monoclonal antibody (EGFR mAb) therapy (follow-up period 24 to 70 months); standard therapy plus tyrosine kinase inhibitors (TKIs) (follow-up period 40 to 60 months) and standard therapy plus immunotherapy (follow-up period 24 to 70 months), all versus standard therapy alone. Moderate quality evidence showed that EGFR mAb therapy may result in 18% fewer deaths when added to standard therapy (HR of mortality 0.82; 95% CI 0.69 to 0.97; 1421 participants, three studies, 67% oropharyngeal tumours, 2% oral cavity tumours). There was also moderate quality evidence that EGFR mAb may result in 32% fewer locoregional failures when added to radiotherapy (RT) (HR 0.68; 95% CI 0.52 to 0.89; 424 participants, one study, 60% oropharyngeal tumours). A subgroup analysis separating studies by type of standard therapy (radiotherapy (RT) or chemoradiotherapy (CRT)) showed some evidence that adding EGFR mAb therapy to RT may result in a 30% reduction in the number of people whose disease progresses (HR 0.70; 95% CI 0.54 to 0.91; 424 participants, one study, 60% oropharyngeal tumours, unclear risk of bias). For the subgroup comparing EGFR mAb plus CRT with CRT alone there was insufficient evidence to determine whether adding EGFR mAb therapy to CRT impacts on progression-free survival (HR 1.08; 95% CI 0.89 to 1.32; 891 participants, one study, 70% oropharyngeal tumours, high risk of bias). The high subgroup heterogeneity meant that we were unable to pool these subgroups. There was evidence that adding cetuximab to standard therapy may result in increased skin toxicity and rash (RR 6.56; 95% CI 5.35 to 8.03; 1311 participants, two studies), but insufficient evidence to determine any difference in skin toxicity and rash in the case of nimotuzumab (RR 1.06; 95% CI 0.85 to 1.31; 92 participants, one study). There was insufficient evidence to determine whether TKIs added to standard therapy impacts on overall survival (HR 0.99; 95% CI 0.62 to 1.57; 271 participants, two studies; very low quality evidence), locoregional control (HR 0.89; 95% CI 0.53 to 1.49; 271 participants, two studies; very low quality evidence), disease-free survival (HR 1.51; 95% CI 0.61 to 3.71; 60 participants, one study; very low quality evidence) or progression-free survival (HR 0.80; 95% CI 0.51 to 1.28; 271 participants, two studies; very low quality evidence). We did find evidence of an increase in skin rash (erlotinib: RR 6.57; 95% CI 3.60 to 12.00; 191 participants, one study; lapatinib: RR 2.02; 95% CI 1.23 to 3.32; 67 participants, one study) and gastrointestinal complaints (lapatinib: RR 15.53; 95% CI 2.18 to 110.55; 67 participants, one study). We found very low quality evidence from one small trial that adding recombinant interleukin (rIL-2) to surgery may increase overall survival (HR 0.52; 95% CI 0.31 to 0.87; 201 participants, 62% oral cavity tumours, 38% oropharyngeal tumours) and there was insufficient evidence to determine whether rIL-2 impacts on adverse effects. Authors' conclusions We found some evidence that adding EGFR mAb to standard therapy may increase overall survival, progression-free survival and locoregional control, while resulting in an increase in skin toxicity for some mAb (cetuximab). There is insufficient evidence to determine whether adding TKIs to standard therapies changes any of our primary outcomes. Very low quality evidence from a single study suggests that rIL-2 combined with surgery may increase overall survival compared with surgery alone.
机译:背景技术口腔癌是全球第六大最常见的癌症,但是诊断出口腔或口咽癌后的预后仍然很差,五年生存率约为50%。尽管对分子靶向疗法的研究急剧增加,并且评估新靶向疗法的临床试验数量迅速增加,但其在治疗口腔癌中的价值尚不清楚。因此,重要的是总结证据以确定靶向疗法和免疫疗法治疗这些癌症的功效和毒性。目的评估除标准疗法外,分子靶向疗法和免疫疗法对口腔癌或口咽癌的治疗效果。搜索方法我们搜索了以下电子数据库:Cochrane口腔健康小组试验登记册(至2015年2月3日),Cochrane对照试验中央登记册(CENTRAL)(Cochrane图书馆,2015年第1期),MEDLINE通过Ovid(1946年2月3日) 2015年)和通过Ovid的EMBASE(1980年至2015年2月3日)。我们搜索了美国国立卫生研究院临床试验注册(clinicaltrials.gov),世界卫生组织临床试验注册平台,美国临床肿瘤学会会议摘要和放射疗法肿瘤学小组的临床试验方案以进行正在进行的试验。我们对语言或出版日期没有任何限制。选择标准我们纳入了随机对照试验,其中50%以上的参与者患有口腔或口咽原发性肿瘤,并比较了靶向治疗或免疫治疗加标准治疗与单独标准治疗的比较。数据收集和分析两名评价作者独立筛选了电子检索的结果,提取了数据并评估了纳入研究的偏倚风险。我们尝试与研究作者联系,以获取必要的缺失数据或进行澄清。当至少有四个研究时,我们使用随机效应模型将足够相似的研究合并到荟萃分析中,而少于四个研究时,我们将固定效应模型结合起来。我们在可能的情况下获得或计算了主要结局的危险比(HR)和95%置信区间(CI)。对于二分结果,我们报告了风险比(RR)和95%CI。主要结果十二项试验(2488名参与者)满足纳入标准。在纳入的试验中,有12%的参与者(298名参与者)患有口腔肿瘤,而59%的参与者(1468名参与者)患有口咽肿瘤。其余的29%患有喉或下咽肿瘤,而其他部位的肿瘤不到1%。没有纳入试验的偏倚风险低;七个有偏见的风险不清楚,五个有偏见的风险很高。我们按照干预类型将试验分为三个主要比较:标准疗法加表皮生长因子受体单克隆抗体(EGFR mAb)疗法(随访期为24至70个月)。标准疗法加酪氨酸激酶抑制剂(TKIs)(随访期为40至60个月)和标准疗法加免疫疗法(随访期为24至70个月),均相对于标准疗法。中等质量的证据表明,加入标准疗法后,EGFR mAb治疗可减少18%的死亡(死亡率HR 0.82; 95%CI 0.69至0.97; 1421名参与者,三项研究,67%口咽肿瘤,2%口腔肿瘤) 。也有中等质量的证据表明,当加入放疗(RT)时,EGFR mAb可以减少32%的局部区域衰竭(HR 0.68; 95%CI 0.52至0.89; 424名参与者,一项研究,60%口咽肿瘤)。按标准疗法(放射疗法(RT)或放化疗(CRT))的类型对研究进行分组的亚组分析显示,一些证据表明,在RT中添加EGFR mAb疗法可导致疾病进展人数减少30%(HR 0.70; 95%CI为0.54至0.91; 424名参与者,一项研究,60%口咽肿瘤,偏倚风险尚不清楚)。对于将EGFR mAb加CRT与单独使用CRT进行比较的亚组,尚无足够的证据来确定在CRT中添加EGFR mAb治疗是否对无进展生存产生影响(HR 1.08; 95%CI 0.89至1.32; 891名参与者,一项研究,70%口咽肿瘤,偏见的高风险)。较高的亚组异质性意味着我们无法合并这些亚组。有证据表明在标准疗法中加入西妥昔单抗可能导致皮肤毒性和皮疹增加(RR 6.56; 95%CI 5.35至8.03; 1311名参与者,两项研究),但没有足够的证据确定该病例中皮肤毒性和皮疹的任何差异尼妥珠单抗的治疗(RR 1.06; 95%CI 0.85 to 1.31; 92名参与者,一项研究)。没有足够的证据来确定标准疗法中添加的TKI是否对总体生存产生影响(HR 0.99; 95%CI 0.62至1.57; 271名参与者,两项研究;非常低质量的证据),局部区域控制(HR 0.89; 95%CI 0.53至750。 1.49; 271名参与者,两项研究;质量非常低的证据),无病生存(HR 1.51; 95%CI 0.61至3.71; 60名参与者,一项研究;质量非常低的证据)或无进展生存率(HR 0.80; 95%CI 0.51至1.28; 271名参与者,两项研究;非常低的质量证据)。我们确实发现了皮疹增加的证据(厄洛替尼:RR 6.57; 95%CI 3.60至12.00; 191名参与者,一项研究;拉帕替尼:RR 2.02; 95%CI 1.23至3.32; 67名参与者,一项研究)和胃肠道不适(拉帕替尼:RR 15.53; 95%CI 2.18至110.55; 67名参与者,一项研究)。我们从一项小型试验中发现非常低质量的证据表明,在手术中添加重组白介素(rIL-2)可能会提高整体生存率(HR 0.52; 95%CI 0.31至0.87; 201名参与者,口腔肿瘤62%,口咽肿瘤38%)而且没有足够的证据确定rIL-2是否对不良反应有影响。作者的结论我们发现一些证据表明,在标准疗法中添加EGFR mAb可以提高总体生存率,无进展生存率和局部区域控制,同时导致某些mAb(西妥昔单抗)的皮肤毒性增加。没有足够的证据来确定将TKI加到标准疗法中是否会改变我们的主要疗效。一项单独研究的质量很低的证据表明,与单独手术相比,rIL-2联合手术可提高整体生存率。

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