Razak Abdul, Shah Prakeshkumar S, Kadam Madhura, Borhan Sayem, Mukerji Amit
Department of Pediatrics, Monash University, Melbourne, Victoria, Australia.
Department of Monash Newborn, Monash Children's Hospital, Melbourne, Australia.
Cochrane Database Syst Rev. 2025 Jul 11;7(7):CD014509. doi: 10.1002/14651858.CD014509.pub2.
Several non-invasive respiratory support modes are available to reduce extubation failure in preterm infants. However, their relative efficacy is unclear.
To assess the benefits and harms of non-invasive respiratory support modes for postextubation support in preterm infants.
We searched CENTRAL, MEDLINE, Embase, CINAHL, and Web of Science to January 2024.
Randomised, quasi-randomised, and cluster-randomised controlled trials comparing non-invasive respiratory support modes for preterm infants postextubation.
Critical outcomes included treatment failure, endotracheal ventilation, and moderate-severe chronic lung disease (CLD). Important outcomes included any CLD, death, death or moderate-severe CLD, pulmonary air leak syndrome, intestinal perforation, and moderate to severe neurodevelopmental impairment.
We assessed risk of bias using the Cochrane RoB 1 tool.
We evaluated seven non-invasive respiratory support modes: nasal continuous positive airway pressure (CPAP); non-invasive positive pressure ventilation (NIPPV); biphasic positive airway pressure (BiPAP); high-flow nasal cannula (HFNC); non-invasive high-frequency oscillatory ventilation (NIHFV); non-invasive neurally adjusted ventilatory assist (NIV-NAVA); high nasal continuous positive airway pressure (H-CPAP). We used random-effects pairwise meta-analysis for direct comparisons and a Bayesian network meta-analysis to estimate network risk ratio (nRR) and 95% credible interval (95% CrI) for indirect and mixed comparisons across seven non-invasive respiratory support modes. We assessed the certainty of evidence using Confidence In Network Meta-Analysis specifically developed for network meta-analysis.
We included 54 studies involving 6995 preterm infants.
Treatment failure (48 studies, 6652 infants). NIPPV may result in a large reduction in treatment failure compared to CPAP (nRR 0.48, 95% CrI 0.36 to 0.62; low-certainty evidence) and HFNC (nRR 0.39, 95% CrI 0.26 to 0.57; low-certainty evidence). NIHFV likely results in a large reduction in treatment failure compared to CPAP (nRR 0.39, 95% CrI 0.26 to 0.58; moderate-certainty evidence) and may result in a large reduction in treatment failure compared to HFNC (nRR 0.32, 95% CrI 0.19 to 0.52; low-certainty evidence). For other comparisons, the evidence was very uncertain or there may have been little to no difference. Endotracheal ventilation (47 studies, 6459 infants). NIPPV may result in a large reduction in endotracheal ventilation compared to CPAP (nRR 0.51, 95% CrI 0.38 to 0.65; low-certainty evidence). NIHFV likely results in a large reduction in endotracheal ventilation compared to CPAP (nRR 0.38, 95% CrI 0.25 to 0.57; moderate-certainty evidence) and HFNC (nRR 0.34, 95% CrI 0.20 to 0.56; moderate-certainty evidence). For other comparisons, the evidence was very uncertain or there may have been little to no difference. Moderate to severe CLD (22 studies, 4895 infants). NIHFV may result in a large reduction in moderate to severe CLD compared to CPAP (nRR 0.64, 95% CrI 0.43 to 0.92; low-certainty evidence). For other comparisons, the evidence was very uncertain or there may have been little to no difference. The most common reasons for downgrading the certainty of evidence in the above analyses were within-study bias, imprecision, and heterogeneity. Sensitivity analysis (only studies with low risk of bias; findings similar to main analysis). NIPPV may result in a large reduction in treatment failure compared to CPAP (nRR 0.55, 95% CrI 0.31 to 0.88; low-certainty evidence) and HFNC (nRR 0.39, 95% CrI 0.17 to 0.81; low-certainty evidence). NIHFV results in a large reduction in treatment failure compared to CPAP (nRR 0.32, 95% CrI 0.14 to 0.70; high-certainty evidence) and HFNC (nRR 0.23, 95% CrI 0.08 to 0.58; high-certainty evidence). NIHFV likely results in a large reduction in endotracheal intubation compared to CPAP (nRR 0.33, 95% CrI 0.15 to 0.71; moderate-certainty evidence) and results in a large reduction in endotracheal intubation compared to HFNC (nRR 0.25, 95% CrI 0.08 to 0.66; high-certainty evidence). For other comparisons, the evidence is very uncertain or there may have been little to no difference. Stratified analysis 1. Analyses restricted to preterm infants 28 weeks' gestational age or greater were consistent with main analyses. For treatment failure, NIPPV may largely reduce risk compared to CPAP (nRR 0.44, 95% CrI 0.27 to 0.70; low-certainty evidence) and HFNC (nRR 0.47, 95% CrI 0.27 to 0.82; low-certainty evidence), and NIHFV may largely reduce the risk compared to CPAP (nRR 0.44, 95% CrI 0.27 to 0.70; low-certainty evidence) and HFNC (nRR 0.31, 95% CrI 0.17 to 0.54; low-certainty evidence). NIHFV likely results in a large reduction of treatment failure compared to BiPAP (nRR 0.35, 95% CrI 0.13 to 0.86; moderate-certainty evidence). For endotracheal ventilation, NIPPV may largely reduce the risk compared to HFNC (nRR 0.43, 95% CrI 0.24 to 0.79; low-certainty evidence) and NIHFV may largely reduce the risk compared to CPAP (nRR 0.44, 95% CrI 0.28 to 0.67; low-certainty evidence). NIHFV likely results in a large reduction of endotracheal ventilation compared to HFNC (nRR 0.29, 95% CrI 0.15 to 0.54; moderate-certainty evidence) and BiPAP (nRR 0.35, 95% CrI 0.14 to 0.84; moderate-certainty evidence). For the other comparisons, the evidence was very uncertain or there may have been little to no difference in critical outcomes. 2. Analyses restricted to preterm infants less than 28 weeks' gestational age: the evidence is very uncertain or there may have been little to no difference in any of the critical outcomes. However, very few studies and participants contributed to these analyses. Results of important outcomes are provided in the main review text.
AUTHORS' CONCLUSIONS: NIPPV may reduce the risk of treatment failure or endotracheal ventilation compared to CPAP or HFNC, but may not reduce the risk of moderate to severe CLD. NIHFV likely reduces the risk of treatment failure and endotracheal ventilation, and may reduce the risk of moderate to severe CLD, compared to CPAP. More data are needed for extremely preterm infants under 28 weeks' gestational age, as they are at the highest risk of extubation failure and are currently under-represented in studies. Further research with matched mean airway pressure between different non-invasive respiratory support modes is necessary to ensure comparability and demonstrate that the benefits are due to the unique characteristics of these non-invasive respiratory support modes.
This Cochrane review had no dedicated funding.
Protocol available via DOI: 10.1002/14651858.CD014509.
有几种无创呼吸支持模式可用于降低早产儿拔管失败的风险。然而,它们的相对疗效尚不清楚。
评估无创呼吸支持模式对早产儿拔管后支持的益处和危害。
我们检索了截至2024年1月的Cochrane中心对照试验注册库、MEDLINE、Embase、护理学与健康领域数据库(CINAHL)和科学网。
比较早产儿拔管后无创呼吸支持模式的随机、半随机和整群随机对照试验。
关键结局包括治疗失败、气管插管通气和中重度慢性肺疾病(CLD)。重要结局包括任何CLD、死亡、死亡或中重度CLD、肺空气泄漏综合征、肠穿孔以及中度至重度神经发育障碍。
我们使用Cochrane偏倚风险评估工具1评估偏倚风险。
我们评估了七种无创呼吸支持模式:鼻持续气道正压通气(CPAP);无创正压通气(NIPPV);双相气道正压通气(BiPAP);高流量鼻导管吸氧(HFNC);无创高频振荡通气(NIHFV);无创神经调节通气辅助(NIV-NAVA);高鼻持续气道正压通气(H-CPAP)。我们采用随机效应配对荟萃分析进行直接比较,并使用贝叶斯网状荟萃分析来估计七种无创呼吸支持模式间接和混合比较的网状风险比(nRR)和95%可信区间(95%CrI)。我们使用专门为网状荟萃分析开发的网状荟萃分析证据确定性评估方法来评估证据的确定性。
我们纳入了54项研究,涉及6995名早产儿。
治疗失败(48项研究,6652名婴儿)。与CPAP相比,NIPPV可能会大幅降低治疗失败的风险(nRR 0.48,95%CrI 0.36至0.62;低确定性证据),与HFNC相比也是如此(nRR 0.39,95%CrI 0.26至0.57;低确定性证据)。与CPAP相比,NIHFV可能会大幅降低治疗失败的风险(nRR 0.39,95%CrI 0.26至0.58;中度确定性证据),与HFNC相比可能也会大幅降低治疗失败的风险(nRR 0.32,95%CrI 0.19至0.52;低确定性证据)。对于其他比较,证据非常不确定,或者可能几乎没有差异。气管插管通气(47项研究,6459名婴儿)。与CPAP相比,NIPPV可能会大幅降低气管插管通气的风险(nRR 0.51,95%CrI 0.38至0.65;低确定性证据)。与CPAP相比,NIHFV可能会大幅降低气管插管通气的风险(nRR 0.38,95%CrI 0.25至0.57;中度确定性证据),与HFNC相比也是如此(nRR 0.34,95%CrI 0.20至0.56;中度确定性证据)。对于其他比较,证据非常不确定,或者可能几乎没有差异。中重度CLD(22项研究,4895名婴儿)。与CPAP相比,NIHFV可能会大幅降低中重度CLD的风险(nRR 0.64,95%CrI 0.43至0.92;低确定性证据)。对于其他比较,证据非常不确定,或者可能几乎没有差异。上述分析中降低证据确定性的最常见原因是研究内偏倚、不精确性和异质性。敏感性分析(仅纳入偏倚风险低的研究;结果与主要分析相似)。与CPAP相比,NIPPV可能会大幅降低治疗失败的风险(nRR 0.55,95%CrI 0.31至0.88;低确定性证据)以及与HFNC相比(nRR 0.39,95%CrI 0.17至0.81;低确定性证据)。与CPAP相比,NIHFV会大幅降低治疗失败的风险(nRR 0.32,95%CrI 0.14至0.70;高确定性证据)以及与HFNC相比(nRR 0.23,95%CrI 0.08至0.58;高确定性证据)。与CPAP相比,NIHFV可能会大幅降低气管插管的风险(nRR 0.33,95%CrI 0.15至0.71;中度确定性证据),与HFNC相比也会大幅降低气管插管的风险(nRR 0.25,95%CrI 0.08至0.66;高确定性证据)。对于其他比较,证据非常不确定,或者可能几乎没有差异。分层分析1。仅限于胎龄28周及以上早产儿的分析与主要分析一致。对于治疗失败,与CPAP相比,NIPPV可能会大幅降低风险(nRR 0.44,95%CrI 0.27至0.70;低确定性证据)以及与HFNC相比(nRR 0.47,95%CrI 0.27至0.82;低确定性证据),与CPAP相比,NIHFV可能会大幅降低风险(nRR 0.44,95%CrI 0.27至0.70;低确定性证据)以及与HFNC相比(nRR 0.31,95%CrI 0.17至0.54;低确定性证据)。与BiPAP相比,NIHFV可能会大幅降低治疗失败的风险(nRR 0.35,95%CrI 0.13至0.86;中度确定性证据)。对于气管插管通气,与HFNC相比,NIPPV可能会大幅降低风险(nRR 0.43,95%CrI 0.24至0.79;低确定性证据),与CPAP相比,NIHFV可能会大幅降低风险(nRR 0.44,95%CrI 0.28至0.67;低确定性证据)。与HFNC相比,NIHFV可能会大幅降低气管插管通气的风险(nRR 0.29,95%CrI 0.15至0.54;中度确定性证据)以及与BiPAP相比(nRR 0.35,95%CrI 0.14至0.84;中度确定性证据)。对于其他比较,证据非常不确定,或者关键结局可能几乎没有差异。2。仅限于胎龄小于28周早产儿的分析:证据非常不确定,或者任何关键结局可能几乎没有差异。然而,很少有研究和参与者参与这些分析。重要结局的结果在主要综述文本中提供。
与CPAP或HFNC相比,NIPPV可能会降低治疗失败或气管插管通气的风险,但可能不会降低中重度CLD的风险。与CPAP相比,NIHFV可能会降低治疗失败和气管插管通气的风险,并且可能会降低中重度CLD的风险。对于胎龄小于28周的极早产儿,需要更多数据,因为他们拔管失败的风险最高,而目前在研究中的代表性不足。有必要对不同无创呼吸支持模式之间的平均气道压进行匹配的进一步研究,以确保可比性,并证明这些益处是由于这些无创呼吸支持模式的独特特性。
本Cochrane综述没有专项资助。
方案可通过DOI:10.1002/14651858.CD014509获取。