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用于支气管扩张症的吸入性高渗剂。

Inhaled hyperosmolar agents for bronchiectasis.

作者信息

Hart Anna, Sugumar Karnam, Milan Stephen J, Fowler Stephen J, Crossingham Iain

机构信息

Lancaster Medical School, Clinical Research Hub, Lancaster University, Lancaster, Lancashire, UK, LA1 4TB.

出版信息

Cochrane Database Syst Rev. 2014 May 12;2014(5):CD002996. doi: 10.1002/14651858.CD002996.pub3.

Abstract

BACKGROUND

Mucus retention in the lungs is a prominent feature of bronchiectasis. The stagnant mucus becomes chronically colonised with bacteria, which elicit a host neutrophilic response. This fails to eliminate the bacteria, and the large concentration of host-derived protease may contribute to the airway damage. The sensation of retained mucus is itself a cause of suffering, and the failure to maintain airway sterility probably contributes to the frequent respiratory infections experienced by many patients.Hypertonic saline inhalation is known to accelerate tracheobronchial clearance in many conditions, probably by inducing a liquid flux into the airway surface, which alters mucus rheology in a way favourable to mucociliary clearance. Inhaled dry powder mannitol has a similar effect. Such agents are an attractive approach to the problem of mucostasis, and deserve further clinical evaluation.

OBJECTIVES

To determine whether inhaled hyperosmolar substances are effective in the treatment of bronchiectasis.

SEARCH METHODS

We searched the Cochrane Airways Group Specialised Register, trials registries, and the reference lists of included studies and review articles. Searches are current up to April 2014.

SELECTION CRITERIA

Any randomised controlled trial (RCT) using hyperosmolar inhalation in patients with bronchiectasis not caused by cystic fibrosis.

DATA COLLECTION AND ANALYSIS

Two review authors assessed studies for suitability. We used standard methods recommended by The Cochrane Collaboration.

MAIN RESULTS

Eleven studies met the inclusion criteria of the review (1021 participants).Five studies on 833 participants compared inhaled mannitol with placebo but poor outcome reporting meant we could pool very little data and most outcomes were reported by only one study. One 12-month trial on 461 participants provided results for exacerbations and demonstrated an advantage for mannitol in terms of time to first exacerbation (median time to exacerbation 165 versus 124 days for mannitol and placebo respectively (hazard ratio (HR) 0.78, 95% confidence interval (CI) 0.63 to 0.96, P = 0.022) and number of days on antibiotics for bronchiectasis exacerbations was significantly better with mannitol (risk ratio (RR) 0.76, 95%CI 0.58 to 1.00, P = 0.0496). However, exacerbation rate per year was not significantly different between mannitol and placebo (RR 0.92 95% CI 0.78 to 1.08). The quality of this evidence was rated as moderate. There was also an indication, from only three trials, again based on moderate quality evidence, that mannitol improves health-related quality of life (mean difference (MD) -2.05; 95% CI -3.69 to -0.40). An analysis of adverse events data, also based on moderate quality evidence, revealed no difference between mannitol and placebo (OR 0.96; 95% CI 0.61 to 1.51). Two additional small trials on 25 participants compared mannitol versus no treatment and the data from these studies were inconclusive.Four studies (combined N = 113) compared hypertonic saline versus isotonic saline. On most outcomes there were conflicting results and the opportunities for the statistical aggregation of data from studies was very limited. It is not possible to draw robust conclusions for this comparison and judgments should be reserved until further data are available.

AUTHORS' CONCLUSIONS: There is an indication from a single, large, unpublished study that inhaled mannitol increases time to first exacerbation in patients with bronchiectasis. In patients with near normal lung function, spirometry does not change dramatically with mannitol and adverse events are not more frequent than placebo. Further investigation is required in a patient population with impaired lung function.It is not possible to draw firm conclusions regarding the effect of nebulised hypertonic saline due to significant differences in the methodology, patient groups, and findings amongst the limited data available. The data suggest that it is unlikely to have benefit over isotonic saline in patients with milder disease, and hence future studies should test its use in those with more severe disease.

摘要

背景

肺部黏液潴留是支气管扩张的一个显著特征。停滞的黏液长期被细菌定植,引发宿主中性粒细胞反应。这无法清除细菌,大量宿主来源的蛋白酶可能导致气道损伤。黏液潴留的感觉本身就是痛苦的根源,气道无法保持无菌状态可能是许多患者频繁发生呼吸道感染的原因。已知吸入高渗盐水在许多情况下可加速气管支气管清除,可能是通过诱导液体流入气道表面,从而以有利于黏液纤毛清除的方式改变黏液流变学。吸入干粉状甘露醇也有类似效果。这类药物是解决黏液停滞问题的一种有吸引力的方法,值得进一步进行临床评估。

目的

确定吸入高渗物质对支气管扩张的治疗是否有效。

检索方法

我们检索了Cochrane气道组专业注册库、试验注册库以及纳入研究和综述文章的参考文献列表。检索截至2014年4月。

入选标准

任何针对非囊性纤维化所致支气管扩张患者使用高渗吸入治疗的随机对照试验(RCT)。

数据收集与分析

两位综述作者评估研究是否合适。我们采用了Cochrane协作网推荐的标准方法。

主要结果

11项研究符合综述的纳入标准(1021名参与者)。5项涉及833名参与者的研究比较了吸入甘露醇与安慰剂,但结果报告不佳意味着我们几乎无法汇总数据,大多数结果仅由一项研究报告。一项针对461名参与者的为期12个月的试验提供了关于病情加重的结果,显示甘露醇在首次病情加重时间方面具有优势(甘露醇和安慰剂的首次病情加重中位时间分别为165天和124天(风险比(HR)0.78,95%置信区间(CI)0.63至0.96,P = 0.022),且甘露醇治疗支气管扩张病情加重时使用抗生素的天数明显更好(风险比(RR)0.76,95%CI 0.58至1.00,P = 0.0496)。然而,甘露醇和安慰剂每年的病情加重率无显著差异(RR 0.92,95%CI 0.78至1.08)。该证据质量被评为中等。同样基于中等质量证据,仅有三项试验表明甘露醇可改善健康相关生活质量(平均差(MD)-2.05;95%CI -3.69至-0.40)。基于中等质量证据对不良事件数据的分析显示,甘露醇和安慰剂之间无差异(比值比(OR)0.96;95%CI 0.61至1.51)。另外两项针对25名参与者的小型试验比较了甘露醇与不治疗,这些研究的数据尚无定论。四项研究(合并N = 113)比较了高渗盐水与等渗盐水。在大多数结果上存在相互矛盾的结果,汇总研究数据进行统计分析的机会非常有限。无法就此比较得出有力结论,在有更多数据之前应保留判断。

作者结论

一项单一的、大型的未发表研究表明,吸入甘露醇可增加支气管扩张患者首次病情加重的时间。在肺功能接近正常的患者中,使用甘露醇后肺功能测定值变化不大,不良事件的发生频率并不高于安慰剂。需要在肺功能受损的患者群体中进一步研究。由于现有有限数据在方法、患者群体和研究结果方面存在显著差异,因此无法就雾化高渗盐水的效果得出确切结论。数据表明,在病情较轻的患者中,高渗盐水不太可能比等渗盐水更有益,因此未来的研究应测试其在病情较重患者中的应用。

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