Chinese Journal of Tissue Engineering Research ›› 2020, Vol. 24 ›› Issue (3): 428-437.doi: 10.3969/j.issn.2095-4344.2417
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Fan Zhirong1, Huang Yongquan2, Peng Jiajie1, Hong Weiwu1, Zhong Degui1, Su Haitao2, Liu Zitao2, Jiang Tao2
Received:
2019-03-21
Revised:
2019-04-09
Accepted:
2019-04-23
Online:
2020-01-28
Published:
2019-12-26
Contact:
Jiang Tao, Master, Associate chief physician, Department of Orthopedics, Second Affiliated Hospital of Guangzhou University of Chinese Medicine, Guangzhou 510006, Guangdong Province, China
About author:
Fan Zhirong, Master candidate, Second Clinical Medical College, Guangzhou University of Chinese Medicine, Guangzhou 510405, Guangdong Province, China
Supported by:
CLC Number:
Fan Zhirong, Huang Yongquan, Peng Jiajie, Hong Weiwu, Zhong Degui, Su Haitao, Liu Zitao, Jiang Tao. Outcomes and metal ion levels of Birmingham hip resurfacing versus total hip arthroplasty: a systematic review and meta-analysis[J]. Chinese Journal of Tissue Engineering Research, 2020, 24(3): 428-437.
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2.3 Meta分析结果 2.3.1 翻修率 共有5篇文献报道了翻修数量[18,20-22,24],其中3篇文献随访时间超过5年[20-21,24],2篇文献则不足5年[18,22],故按照随访时间长短分为2个亚组,分别为短期随访组(随访时间不足5年)和长期随访组(随访时间超过5年)。亚组异质性检验结果显示,短期随访组(I2=0%,P=0.73)与长期随访组(I2=33%,P=0.22)组间具有同质性,故采用固定效应模型合并效应量。Meta分析结果显示,无论是短期随访还是长期随访,伯明翰髋关节表面置换组和全髋关节置换组比较均具有更少的翻修率,但是短期随访组组间差异无显著性意义(RR=0.13,95%CI(0.02,1.01),P=0.05),长期随访组组间差异有显著性意义(RR=0.27,95%CI(0.15,0.50),P < 0.000 1),见图2。"
2.3.2 总体并发症 共有5篇文献报道了总体并发 症[3,16-18,21],其中2篇文献随访时间超过5年[16,20-21,24],3篇文献随访时间不足5年[3,17-18,22],故按照随访时间长短分为短期随访组和长期随访组2个亚组。亚组异质性检验结果显示,短期随访组(I2=0%,P=0.84)与长期随访组(I2=0%,P=0.92)组间具有同质性,故采用固定效应模型合并效应量。Meta分析结果显示,短期随访组中,伯明翰髋关节表面置换组并发症发生率较全髋关节置换组稍高,但2组间差异无显著性意义(RR=1.28,95%CI(0.52,3.18),P=0.59);长期随访组中,伯明翰髋关节表面置换组总体并发症较全髋关节置换少,2组间差异有显著性意义(RR=0.28,95%CI(0.19,0.43), P < 0.000 01),见图3。"
2.3.3 改良Harris髋关节评分及Harris髋关节评分 共有2篇文献报道了改良Harris髋关节评分[20,22],5篇文献报道了Harris髋关节评分[3,16,19,25-26],根据评分类型及随访时间分为3个亚组,分别为改良Harris髋关节评分组、短期随访组和长期随访组,由于各组异质性检验提示组间异质性较大,亚组分析后采用随机效应模型合并效应量。Meta分析结果显示,在短期随访组中,伯明翰髋关节表面置换组在Harris髋关节评分方面优于全髋关节置换组,组间差异有显著性意义[SMD=1.66,95%CI(0.58,2.73),P=0.003];长期随访中,伯明翰髋关节表面置换组与全髋关节置换组差异无显著性意义[SMD=0.10,95%CI(-0.40,0.60), P= 0.70]。改良Harris髋关节评分结果显示,伯明翰髋关节表面置换组优于全髋关节置换组,2组差异有显著性意义[SMD=0.27,95%CI(0.03,0.51),P=0.03],见图4。"
2.3.6 钴离子水平 共有5篇文献报道了钴离子水平[19,22-23,25-26],其中3篇为短期随访结果[19,22-23],2篇为长期随访结果[25-26],分为2个亚组,分别为短期随访组和长期随访组,由于2组异质性检验均提示有较高的异质性(短期随访组:I2=66%,P=0.05;长期随访组:I2=72%,P=0.06),故采用随机效应模型合并效应量。Meta分析结果显示,伯明翰髋关节表面置换组与全髋关节置换组在术后钴离子水平比较,无论是短期随访[SMD=-0.30,95%CI(-0.65,0.05), P=0.09]还是长期随访[SMD=0.18,95%CI(-0.62,0.98), P=0.65] ,见图7,2组差异均无显著性意义。"
2.3.7 铬离子水平 共有5篇文献报道了铬离子水平[19,22-23,25-26],其中3篇为短期随访结果[19,22-23],2篇为长期随访结果[25-26],异质性检验结果显示在短期随访组间具有同质性(I2=0%,P=0.91),但是在长期随访组中提示异质性较高(I2=69%,P=0.07),采用固定效应模型合并效应量。Meta分析结果显示,伯明翰髋关节表面置换组与全髋关节置换组在术后铬离子水平比较,2组在短期随访中差异无显著性意义[SMD=0.06,95%CI(-0.13,0.25), P=0.55]。但是2组在长期随访的比较中发现,伯明翰髋关节表面置换组较全髋关节置换组释放出更多的铬离子,2组差异有显著性意义[SMD=0.46,95%CI(0.04,0.88),P=0.03],见图8。"
2.4 敏感度分析 此次研究对亚组分析后仍然无法消除异质性的观察指标,如Harris髋关节评分和钴离子水平。进行逐一排除单个研究后观察效应量是否发生明显改变的敏感度分析,以明确异质性来源。在长期随访的Harris髋关节评分组,剔除SAVARINO等[25]的研究后组间异质性消失,但是重新阅读全文后未见明显错漏,故异质性的来源可能来自于随访时间,因为HADDAD等[16]的随访时间为10年以上,而MORONI等[26]的观察时间在5年左右,但是SAVARINO等[25]的随访时间介于两者之间。在钴离子水平方面,在短期随访组中删除RENNER等[23]的研究后异质性消失,阅读全文后亦未发现明显错漏,异质性可能与不同研究中术者的手术操作技术水平高低有关。"
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