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核心技术专利:CN118964589B侵权必究
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外用抗炎治疗湿疹:网状荟萃分析。

Topical anti-inflammatory treatments for eczema: network meta-analysis.

机构信息

Centre of Evidence Based Dermatology, University of Nottingham, Nottingham, UK.

Imperial Clinical Trials Unit, Imperial College London, London, UK.

出版信息

Cochrane Database Syst Rev. 2024 Aug 6;8(8):CD015064. doi: 10.1002/14651858.CD015064.pub2.


DOI:10.1002/14651858.CD015064.pub2
PMID:39105474
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11301992/
Abstract

BACKGROUND: Eczema (atopic dermatitis) is the most burdensome skin condition worldwide and cannot currently be prevented or cured. Topical anti-inflammatory treatments are used to control eczema symptoms, but there is uncertainty about the relative effectiveness and safety of different topical anti-inflammatory treatments. OBJECTIVES: To compare and rank the efficacy and safety of topical anti-inflammatory treatments for people with eczema using a network meta-analysis. SEARCH METHODS: We searched the Cochrane Skin Specialised Register, CENTRAL, MEDLINE, Embase and trial registries on 29 June 2023, and checked the reference lists of included studies. SELECTION CRITERIA: We included within-participant or between-participant randomised controlled trials (RCTs) in people of any age with eczema of any severity, but excluded trials in clinically infected eczema, seborrhoeic eczema, contact eczema, or hand eczema. We included topical anti-inflammatory treatments used for at least one week, compared with another anti-inflammatory treatment, no treatment, or vehicle/placebo. Vehicle is a 'carrier system' for an active pharmaceutical substance, which may also be used on its own as an emollient for dry skin. We excluded trials of topical antibiotics used alone, complementary therapies, emollients used alone, phototherapy, wet wraps, and systemic treatments. DATA COLLECTION AND ANALYSIS: We used standard Cochrane methods. Primary outcomes were patient-reported eczema symptoms, clinician-reported eczema signs and investigator global assessment. Secondary outcomes were health-related quality of life, long-term control of eczema, withdrawal from treatment/study, and local adverse effects (application-site reactions, pigmentation changes and skin thinning/atrophy were identified as important concerns through patient and public involvement). We used CINeMA to quantify our confidence in the evidence for each outcome. MAIN RESULTS: We included 291 studies involving 45,846 participants with the full spectrum of eczema severity, mainly conducted in high-income countries in secondary care settings. Most studies included adults, with only 31 studies limited to children aged < 12 years. Studies usually included male and female participants, multiple ethnic groups but predominantly white populations. Most studies were industry-funded (68%) or did not report their funding sources/details. Treatment duration and trial participation were a median of 21 and 28 days (ranging from 7 days to 5 years), respectively. Interventions used were topical corticosteroids (TCS) (172), topical calcineurin inhibitors (TCI) (134), phosphodiesterase-4 (PDE-4) inhibitors (55), janus kinase (JAK) inhibitors (30), aryl hydrocarbon receptor activators (10), or other topical agents (21). Comparators included vehicle (170) or other anti-inflammatory treatments. The risk of bias was high in 242 of the 272 (89.0%) trials contributing to data analyses, most commonly due to concerns about selective reporting. Network meta-analysis (NMA) was only possible for short-term outcomes. Patient-reported symptoms NMA of 40 trials (6482 participants) reporting patient-reported symptoms as a binary outcome ranked tacrolimus 0.1% (OR 6.27, 95% CI 1.19 to 32.98), potent TCS (OR 5.99, 95% CI 2.83 to 12.69), and ruxolitinib 1.5% (OR 5.64, 95% CI 1.26 to 25.25) as the most effective, all with low confidence. Mild TCS, roflumilast 0.15%, and crisaborole 2% were the least effective. Class-level sensitivity analysis found potent/very potent TCS had similar effectiveness to potent TCI and was more effective than mild TCI and PDE-4 inhibitors. NMA of 29 trials (3839 participants) reporting patient-reported symptoms as a continuous outcome ranked very potent TCS (SMD -1.99, 95% CI -3.25 to -0.73; low confidence) and tacrolimus 0.03% (SMD -1.57, 95% CI -2.42 to -0.72; moderate confidence) the highest. Direct information for tacrolimus 0.03% was based on one trial of 60 participants at high risk of bias. Roflumilast 0.15%, delgocitinib 0.25% or 0.5%, and tapinarof 1% were the least effective. Class-level sensitivity analysis found potent/very potent TCS had similar effectiveness to potent TCI and JAK inhibitors and mild/moderate TCS was less effective than mild TCI. A further 50 trials (9636 participants) reported patient-reported symptoms as a continuous outcome but could not be included in NMA. Clinician-reported signs NMA of 32 trials (4121 participants) reported clinician signs as a binary outcome and ranked potent TCS (OR 8.15, 95% CI 4.99, 13.57), tacrolimus 0.1% (OR 8.06, 95% CI 3.30, 19.67), ruxolitinib 1.5% (OR 7.72, 95% CI 4.92, 12.10), and delgocitinib 0.5% (OR 7.61, 95% CI 3.72, 15.58) as most effective, all with moderate confidence. Mild TCS, roflumilast 0.15%, crisaborole 2%, and tapinarof 1% were the least effective. Class-level sensitivity analysis found potent/very potent TCS more effective than potent TCI, mild TCI, JAK inhibitors, PDE-4 inhibitors; and mild TCS and PDE-4 inhibitors had similar effectiveness. NMA of 49 trials (5261 participants) reported clinician signs as a continuous outcome and ranked tacrolimus 0.03% (SMD -2.69, 95% CI -3.36, -2.02) and very potent TCS (SMD -1.87, 95% CI -2.69, -1.05) as most effective, both with moderate confidence; roflumilast 0.15%, difamilast 0.3% and tapinarof 1% were ranked as least effective. Direct information for tacrolimus 0.03% was based on one trial in 60 participants with a high risk of bias. For some sensitivity analyses, potent TCS, tacrolimus 0.1%, ruxolitinib 1.5%, delgocitinib 0.5% and delgocitinib 0.25% became some of the most effective treatments. Class-level analysis found potent/very potent TCS had similar effectiveness to potent TCI and JAK inhibitors, and moderate/mild TCS was more effective than mild TCI. A further 100 trials (22,814 participants) reported clinician signs as a continuous outcome but could not be included in NMA. Investigator Global Assessment NMA of 140 trials (23,383 participants) reported IGA as a binary outcome and ranked ruxolitinib 1.5% (OR 9.34, 95% CI 4.8, 18.18), delgocitinib 0.5% (OR 10.08, 95% CI 2.65, 38.37), delgocitinib 0.25% (OR 6.87, 95% CI 1.79, 26.33), very potent TCS (OR 8.34, 95% CI 4.73, 14.67), potent TCS (OR 5.00, 95% CI 3.80, 6.58), and tacrolimus 0.1% (OR 5.06, 95% CI 3.59, 7.13) as most effective, all with moderate confidence. Mild TCS, crisaborole 2%, pimecrolimus 1%, roflumilast 0.15%, difamilast 0.3% and 1%, and tacrolimus 0.03% were the least effective. In a sensitivity analysis of low risk of bias information (12 trials, 1639 participants), potent TCS, delgocitinib 0.5% and delgocitinib 0.25% were most effective, and pimecrolimus 1%, roflumilast 0.15%, difamilast 1% and difamilast 0.3% least effective. Class-level sensitivity analysis found potent/very potent TCS had similar effectiveness to potent TCI and JAK inhibitors and were more effective than PDE-4 inhibitors; mild/moderate TCS were less effective than potent TCI and had similar effectiveness to mild TCI. Longer-term outcomes over 6 to 12 months showed a possible increase in effectiveness for pimecrolimus 1% versus vehicle (4 trials, 2218 participants) in a pairwise meta-analysis, and greater treatment success with mild/moderate TCS than pimecrolimus 1% (based on 1 trial of 2045 participants). Local adverse effects NMA of 83 trials (18,992 participants, 2424 events) reporting application-site reactions ranked tacrolimus 0.1% (OR 2.2, 95% CI 1.53, 3.17; moderate confidence), crisaborole 2% (OR 2.12, 95% CI 1.18, 3.81; high confidence), tacrolimus 0.03% (OR 1.51, 95%CI 1.10, 2.09; low confidence), and pimecrolimus 1% (OR 1.44, 95% CI 1.01, 2.04; low confidence) as most likely to cause site reactions. Very potent, potent, moderate, and mild TCS were least likely to cause site reactions. NMA of eight trials (1786 participants, 3 events) reporting pigmentation changes found no evidence for increased pigmentation changes with TCS and crisaborole 2%, with low confidence for mild, moderate or potent TCS and moderate confidence for crisaborole 2%. NMA of 25 trials (3691 participants, 36 events) reporting skin thinning found no evidence for increased skin thinning with short-term (median 3 weeks, range 1-16 weeks) use of mild TCS (OR 0.72, 95% CI 0.12, 4.31), moderate TCS (OR 0.91, 95% CI 0.16, 5.33), potent TCS (OR 0.96, 95% CI 0.21, 4.43) or very potent TCS (OR 0.88, 95% CI 0.31, 2.49), all with low confidence. Longer-term outcomes over 6 to 60 months showed increased skin thinning with mild to potent TCS versus TCI (3 trials, 4069 participants, 6 events with TCS). AUTHORS' CONCLUSIONS: Potent TCS, JAK inhibitors and tacrolimus 0.1% were consistently ranked as amongst the most effective topical anti-inflammatory treatments for eczema and PDE-4 inhibitors as amongst the least effective. Mild TCS and tapinarof 1% were ranked amongst the least effective treatments in three of five efficacy networks. TCI and crisaborole 2% were ranked most likely to cause local application-site reactions and TCS least likely. We found no evidence for increased skin thinning with short-term TCS but an increase with longer-term TCS.

摘要

背景:湿疹(特应性皮炎)是全球最具负担性的皮肤疾病,目前无法预防或治愈。局部抗炎治疗用于控制湿疹症状,但不同局部抗炎治疗的相对有效性和安全性存在不确定性。 目的:使用网络荟萃分析比较和排名湿疹患者局部抗炎治疗的疗效和安全性。 检索方法:我们检索了 2023 年 6 月 29 日的 Cochrane 皮肤专业注册库、CENTRAL、MEDLINE、Embase 和试验注册库,并查阅了纳入研究的参考文献。 纳入排除标准:我们纳入了任何严重程度的湿疹患者的参与者进行的自身或组间随机对照试验(RCT),但排除了临床上感染性湿疹、脂溢性湿疹、接触性湿疹或手部湿疹的试验。我们纳入了至少使用一周的局部抗炎治疗,与另一种抗炎治疗、无治疗或载体/安慰剂进行比较。载体是活性药物物质的“载体系统”,也可单独用作干燥皮肤的保湿剂。我们排除了仅用于局部抗生素、补充疗法、单独使用的保湿剂、光疗、湿包和全身治疗的试验。 数据收集和分析:我们使用了标准的 Cochrane 方法。主要结局是患者报告的湿疹症状、临床医生报告的湿疹体征和研究者整体评估。次要结局是健康相关的生活质量、湿疹的长期控制、治疗/研究退出以及局部不良反应(应用部位反应、色素沉着变化和皮肤变薄/萎缩,通过患者和公众参与确定为重要关注点)。我们使用 CINeMA 来量化我们对每个结局证据的信心。 主要结果:我们纳入了 291 项研究,涉及 45846 名参与者,涵盖了湿疹严重程度的全谱,主要在二级保健环境中进行,参与者多为成年人,来自多个种族,但主要为白种人。大多数研究包括男性和女性参与者,多个研究纳入了多种族群体。大多数研究由工业界资助(68%)或未报告其资金来源/细节。治疗持续时间和试验参与时间中位数分别为 21 天和 28 天(范围从 7 天到 5 年)。干预措施包括局部皮质类固醇(TCS)(172 项)、局部钙调神经磷酸酶抑制剂(TCI)(134 项)、磷酸二酯酶-4(PDE-4)抑制剂(55 项)、Janus 激酶(JAK)抑制剂(30 项)、芳香烃受体激动剂(10 项)或其他局部药物(21 项)。对照组包括载体(170 项)或其他抗炎治疗。在 272 项(89.0%)对数据进行分析的试验中,242 项存在高偏倚风险,最常见的原因是选择性报告的担忧。仅对短期结局进行网络荟萃分析(NMA)。40 项研究(6482 名参与者)报告了患者报告的症状作为二分类结局的 NMA 将他克莫司 0.1%(OR 6.27,95%CI 1.19 至 32.98)、强效 TCS(OR 5.99,95%CI 2.83 至 12.69)和鲁索利替尼 1.5%(OR 5.64,95%CI 1.26 至 25.25)评为最有效药物,所有这些药物的置信度均较低。轻度 TCS、罗氟司特 0.15%和比马前列素 2%的疗效最低。类水平敏感性分析发现,强效/非常强效 TCS 的疗效与强效 TCI 相当,并且比轻度 TCI 和 PDE-4 抑制剂更有效。29 项研究(3839 名参与者)报告了患者报告的症状作为连续结局的 NMA 将非常强效 TCS(SMD-1.99,95%CI-3.25 至-0.73;低置信度)和他克莫司 0.03%(SMD-1.57,95%CI-2.42 至-0.72;中等置信度)评为疗效最高。关于他克莫司 0.03%的直接信息基于一项纳入 60 名高风险偏倚参与者的试验。罗氟司特 0.15%、度鲁特韦 0.25%或 0.5%和比马前列素 1%的疗效最低。类水平敏感性分析发现,强效/非常强效 TCS 的疗效与强效 TCI 和 JAK 抑制剂相当,而轻度/中度 TCS 的疗效比轻度 TCI 差。另有 50 项研究(9636 名参与者)报告了患者报告的症状作为连续结局,但无法纳入 NMA。32 项研究(4121 名参与者)报告了临床医生报告的体征作为二分类结局的 NMA 将强效 TCS(OR 8.15,95%CI 4.99 至 13.57)、他克莫司 0.1%(OR 8.06,95%CI 3.30 至 19.67)、鲁索利替尼 1.5%(OR 7.72,95%CI 4.92 至 12.10)和度鲁特韦 0.5%(OR 7.61,95%CI 3.72 至 15.58)评为最有效药物,所有这些药物的置信度均中等。轻度 TCS、罗氟司特 0.15%、比马前列素 2%和比马前列素 1%的疗效最低。类水平敏感性分析发现,强效

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Cochrane Database Syst Rev. 2020-10-19

[9]
Topical Anti-Inflammatory Treatments for Eczema: A Cochrane Systematic Review and Network Meta-Analysis.

Clin Exp Allergy. 2024-12

[10]
Educational and psychological interventions for managing atopic dermatitis (eczema).

Cochrane Database Syst Rev. 2024-8-12

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本文引用的文献

[1]
Atopic dermatitis (eczema) guidelines: 2023 American Academy of Allergy, Asthma and Immunology/American College of Allergy, Asthma and Immunology Joint Task Force on Practice Parameters GRADE- and Institute of Medicine-based recommendations.

Ann Allergy Asthma Immunol. 2024-3

[2]
Do people with eczema and their carers understand topical steroid potency? Results of two surveys.

Clin Exp Dermatol. 2024-2-14

[3]
The long-term safety of topical corticosteroids in atopic dermatitis: A systematic review.

Skin Health Dis. 2023-8-16

[4]
Topical treatments for atopic dermatitis (eczema): Systematic review and network meta-analysis of randomized trials.

J Allergy Clin Immunol. 2023-12

[5]
Once-Daily Crisaborole Ointment, 2%, as a Long-Term Maintenance Treatment in Patients Aged ≥ 3 Months with Mild-to-Moderate Atopic Dermatitis: A 52-Week Clinical Study.

Am J Clin Dermatol. 2023-7

[6]
Efficacy and safety of crisaborole ointment in Chinese and Japanese patients aged ≥2 years with mild-to-moderate atopic dermatitis.

J Dermatol. 2023-7

[7]
Topical steroid withdrawal: an emerging clinical problem.

Clin Exp Dermatol. 2023-8-25

[8]
Can co-created knowledge mobilisation interventions alter and enhance mindlines to improve childhood eczema care? A UK-based Social Impact Framework evaluation.

BMJ Open. 2023-4-19

[9]
Crisaborole reverses dysregulation of the mild to moderate atopic dermatitis proteome toward nonlesional and normal skin.

J Am Acad Dermatol. 2023-8

[10]
Atopic Dermatitis in Children in the General Population: Baseline Characteristics, Medication Use, and Severity Measures in the Rotterdam Eczema Study.

Dermatitis. 2024

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