How Is Variability in Femoral and Acetabular Version Associated With Presentation Among Young Adults With Hip Pain?

J. Verhaegen, Zoe Kerhoulas, Michaela Burke, C. Galletta, G. Wilkin, Kevin Smit, S. Carsen, Paul Beaulé, G. Grammatopoulos
{"title":"How Is Variability in Femoral and Acetabular Version Associated With Presentation Among Young Adults With Hip Pain?","authors":"J. Verhaegen, Zoe Kerhoulas, Michaela Burke, C. Galletta, G. Wilkin, Kevin Smit, S. Carsen, Paul Beaulé, G. Grammatopoulos","doi":"10.1097/corr.0000000000003076","DOIUrl":null,"url":null,"abstract":"\n \n Acetabular and femoral version contribute to hip pain in patients with femoroacetabular impingement (FAI) or dysplasia. However, definitions and measurement methods of femoral version have varied in different studies, resulting in different “normal” values being used by clinicians for what should be the same anatomic measurement. This could result in discrepant or even inappropriate treatment recommendations.\n \n \n \n In patients undergoing hip preservation surgery, (1) what is the range of acetabular and femoral version at presentation, and how much do two commonly used measurement techniques (those of Murphy and Reikerås) differ? (2) How are differences in acetabular and femoral version associated with clinical factors and outcomes scores at the time of presentation?\n \n \n \n This was a retrospective analysis of data gathered in a longitudinally maintained database of patients undergoing hip preservation at a tertiary care referral center. Between June 2020 and December 2021, 282 hips in 258 patients were treated for an isolated labral tear (9% [26 hips]), hip dysplasia (21% [59 hips]), FAI (52% [147 hips]), mixed FAI and dysplasia (17% [47 hips]), or pediatric deformity (slipped capital femoral head epiphysis or Perthes disease; 1% [3 hips]) with hip arthroscopy (71% [200 hips]), periacetabular osteotomy (26% [74 hips]), surgical hip dislocation (2.5% [7 hips]), or femoral derotation osteotomy (0.5% [1 hip]). We considered those with complete radiographic data (CT including the pelvis and distal femur) and patient-reported outcome scores as potentially eligible. Exclusion criteria were age younger than 18 or older than 55 years (5 hips, 3 patients), signs of hip osteoarthritis (Tönnis grade ≥ 2; 0), pediatric deformity (slipped capital femoral head epiphysis or Perthes disease; 3 hips, 3 patients), previous femoral or acetabular osteotomy (2 hips, 2 patients), avascular necrosis of the femoral head (0), history of neuromuscular disorder (Ehlers-Danlos syndrome; 3 hips, 3 patients) or rheumatoid disease (ankylosing spondylitis; 1 hip, 1 patient), and when CT did not include the knees (19 hips, 19 patients). Based on these criteria, 249 hips in 227 patients were included. Of patients with bilateral symptomatic hips, one side was randomly selected for inclusion, leaving 227 hips in 227 patients for further analysis. The patients’ median age (range) was 34 years (19 to 55 years), the median BMI (range) was 27 kg/m2 (16 to 55 kg/m2), and 63% (144) were female; they were treated with hip arthroscopy (in 74% [168]) or periacetabular osteotomy (in 23% [52]). Patients underwent a CT scan to measure acetabular version and femoral version using the Murphy (low < 10°; normal: 10° to 25°; high > 25°) or Reikerås (low < 5°; normal: 5° to 20°; high > 20°) technique. The McKibbin index was calculated (low: < 20°; normal: 20° to 50°; high > 50°). Based on the central acetabular version and femoral version as measured by Murphy, hips were grouped according to their rotational profile into four groups: unstable rotational profile: high (high acetabular version with high femoral version) or moderate (high acetabular version with normal femoral version or normal acetabular version with high femoral version); normal rotational profile (normal acetabular version with femoral version); compensatory rotational profile (low acetabular version with high femoral version or high acetabular version with low femoral version); and impingement rotational profile (low acetabular version with low femoral version): high (low acetabular version with low femoral version) or moderate (low acetabular version with normal femoral version or normal acetabular version with low femoral version). Radiographic assessments were manually performed on digitized images by two orthopaedic residents, and 25% of randomly selected measurements were repeated by the senior author, a fellowship-trained hip preservation and arthroplasty surgeon. Interobserver and intraobserver reliabilities were calculated using the correlation coefficient with a two-way mixed model, showing excellent agreement for Murphy technique measurements (intraclass correlation coefficient 0.908 [95% confidence interval 0.80 to 0.97]) and Reikerås technique measurements (ICC 0.938 [95% CI 0.81 to 0.97]). Patient-reported measures were recorded using the International Hip Outcome Tool (iHOT-33) (0 to 100; worse to best).\n \n \n \n The mean acetabular version was 18° ± 6°, and mean femoral version was 24° ± 12° using the Murphy technique and 12° ± 11° with the Reikerås method. Eighty percent (181 of 227) of hips had normal acetabular version, 42% (96 of 227) to 63% (142 to 227) had normal femoral version per Murphy and Reikerås, respectively, and 67% (152 to 227) had a normal McKibbin index. Patients with an impingement profile (low acetabular version or femoral version) were older (39 ± 9 years) than patients with an unstable (high acetabular version or femoral version; 33 ± 9 years; p = 0.004), normal (33 ± 9 years; p = 0.02), or compensatory (high acetabular version with low femoral version or vice versa; 33 ± 7 years; p = 0.08) rotational profile. Using the Murphy technique, femoral version was 12° greater than with the Reikerås method (R2 0.85; p < 0.001). There were no differences in iHOT-33 score between different groups (impingement: 32 ± 17 versus normal 35 ± 21 versus compensated: 34 ± 20 versus unstable: 31 ± 17; p = 0.40).\n \n \n \n Variability in femoral version is twice as large as acetabular version. Patients with an impingement rotational profile were older than patients with a normal, compensatory, or unstable profile, indicating there are other variables not yet fully accounted for that lead to earlier pain and presentation in these groups. Important differences exist between measurement methods. This study shows that different measurement methods for femoral anteversion result in different numbers; if other authors compare their results to those of other studies, they should use equations such as the one suggested in this study.\n \n \n \n Level III, prognostic study.\n","PeriodicalId":115399,"journal":{"name":"Clinical Orthopaedics &amp; Related Research","volume":"66 s264","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-05-07","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Clinical Orthopaedics &amp; Related Research","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.1097/corr.0000000000003076","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0

Abstract

Acetabular and femoral version contribute to hip pain in patients with femoroacetabular impingement (FAI) or dysplasia. However, definitions and measurement methods of femoral version have varied in different studies, resulting in different “normal” values being used by clinicians for what should be the same anatomic measurement. This could result in discrepant or even inappropriate treatment recommendations. In patients undergoing hip preservation surgery, (1) what is the range of acetabular and femoral version at presentation, and how much do two commonly used measurement techniques (those of Murphy and Reikerås) differ? (2) How are differences in acetabular and femoral version associated with clinical factors and outcomes scores at the time of presentation? This was a retrospective analysis of data gathered in a longitudinally maintained database of patients undergoing hip preservation at a tertiary care referral center. Between June 2020 and December 2021, 282 hips in 258 patients were treated for an isolated labral tear (9% [26 hips]), hip dysplasia (21% [59 hips]), FAI (52% [147 hips]), mixed FAI and dysplasia (17% [47 hips]), or pediatric deformity (slipped capital femoral head epiphysis or Perthes disease; 1% [3 hips]) with hip arthroscopy (71% [200 hips]), periacetabular osteotomy (26% [74 hips]), surgical hip dislocation (2.5% [7 hips]), or femoral derotation osteotomy (0.5% [1 hip]). We considered those with complete radiographic data (CT including the pelvis and distal femur) and patient-reported outcome scores as potentially eligible. Exclusion criteria were age younger than 18 or older than 55 years (5 hips, 3 patients), signs of hip osteoarthritis (Tönnis grade ≥ 2; 0), pediatric deformity (slipped capital femoral head epiphysis or Perthes disease; 3 hips, 3 patients), previous femoral or acetabular osteotomy (2 hips, 2 patients), avascular necrosis of the femoral head (0), history of neuromuscular disorder (Ehlers-Danlos syndrome; 3 hips, 3 patients) or rheumatoid disease (ankylosing spondylitis; 1 hip, 1 patient), and when CT did not include the knees (19 hips, 19 patients). Based on these criteria, 249 hips in 227 patients were included. Of patients with bilateral symptomatic hips, one side was randomly selected for inclusion, leaving 227 hips in 227 patients for further analysis. The patients’ median age (range) was 34 years (19 to 55 years), the median BMI (range) was 27 kg/m2 (16 to 55 kg/m2), and 63% (144) were female; they were treated with hip arthroscopy (in 74% [168]) or periacetabular osteotomy (in 23% [52]). Patients underwent a CT scan to measure acetabular version and femoral version using the Murphy (low < 10°; normal: 10° to 25°; high > 25°) or Reikerås (low < 5°; normal: 5° to 20°; high > 20°) technique. The McKibbin index was calculated (low: < 20°; normal: 20° to 50°; high > 50°). Based on the central acetabular version and femoral version as measured by Murphy, hips were grouped according to their rotational profile into four groups: unstable rotational profile: high (high acetabular version with high femoral version) or moderate (high acetabular version with normal femoral version or normal acetabular version with high femoral version); normal rotational profile (normal acetabular version with femoral version); compensatory rotational profile (low acetabular version with high femoral version or high acetabular version with low femoral version); and impingement rotational profile (low acetabular version with low femoral version): high (low acetabular version with low femoral version) or moderate (low acetabular version with normal femoral version or normal acetabular version with low femoral version). Radiographic assessments were manually performed on digitized images by two orthopaedic residents, and 25% of randomly selected measurements were repeated by the senior author, a fellowship-trained hip preservation and arthroplasty surgeon. Interobserver and intraobserver reliabilities were calculated using the correlation coefficient with a two-way mixed model, showing excellent agreement for Murphy technique measurements (intraclass correlation coefficient 0.908 [95% confidence interval 0.80 to 0.97]) and Reikerås technique measurements (ICC 0.938 [95% CI 0.81 to 0.97]). Patient-reported measures were recorded using the International Hip Outcome Tool (iHOT-33) (0 to 100; worse to best). The mean acetabular version was 18° ± 6°, and mean femoral version was 24° ± 12° using the Murphy technique and 12° ± 11° with the Reikerås method. Eighty percent (181 of 227) of hips had normal acetabular version, 42% (96 of 227) to 63% (142 to 227) had normal femoral version per Murphy and Reikerås, respectively, and 67% (152 to 227) had a normal McKibbin index. Patients with an impingement profile (low acetabular version or femoral version) were older (39 ± 9 years) than patients with an unstable (high acetabular version or femoral version; 33 ± 9 years; p = 0.004), normal (33 ± 9 years; p = 0.02), or compensatory (high acetabular version with low femoral version or vice versa; 33 ± 7 years; p = 0.08) rotational profile. Using the Murphy technique, femoral version was 12° greater than with the Reikerås method (R2 0.85; p < 0.001). There were no differences in iHOT-33 score between different groups (impingement: 32 ± 17 versus normal 35 ± 21 versus compensated: 34 ± 20 versus unstable: 31 ± 17; p = 0.40). Variability in femoral version is twice as large as acetabular version. Patients with an impingement rotational profile were older than patients with a normal, compensatory, or unstable profile, indicating there are other variables not yet fully accounted for that lead to earlier pain and presentation in these groups. Important differences exist between measurement methods. This study shows that different measurement methods for femoral anteversion result in different numbers; if other authors compare their results to those of other studies, they should use equations such as the one suggested in this study. Level III, prognostic study.
股骨和髋臼形态的变化与髋关节疼痛的年轻人的表现有何关联?
股骨髋臼撞击症(FAI)或发育不良患者的髋关节疼痛是由髋臼和股骨畸形造成的。然而,在不同的研究中,股骨外翻的定义和测量方法各不相同,导致临床医生对本应相同的解剖测量使用不同的 "正常 "值。这可能导致治疗建议不一致甚至不恰当。 在接受保留髋关节手术的患者中,(1) 髋臼和股骨的大小范围是多少,两种常用的测量技术(Murphy 和 Reikerås)的差别有多大?(2) 髋臼和股骨大小的差异与就诊时的临床因素和结果评分有何关联? 这是对一家三级医疗转诊中心纵向维护的髋关节保留患者数据库中收集的数据进行的回顾性分析。2020 年 6 月至 2021 年 12 月期间,258 名患者的 282 个髋关节因孤立性唇裂(9% [26 个髋关节])、髋关节发育不良(21% [59 个髋关节])、FAI(52% [147 个髋关节])、混合性 FAI 和发育不良(17% [47 个髋关节])或小儿畸形(股骨头骨骺滑脱或 Perthes 病;1%[3髋]),进行髋关节镜检查(71%[200髋])、髋臼周围截骨术(26%[74髋])、髋关节脱位手术(2.5%[7髋])或股骨外旋截骨术(0.5%[1髋])。我们认为具有完整放射学数据(CT 包括骨盆和股骨远端)和患者报告结果评分的患者可能符合条件。排除标准为年龄小于 18 岁或大于 55 岁(5 个髋关节,3 名患者)、髋关节骨关节炎体征(Tönnis 分级≥ 2;0)、小儿畸形(股骨头骺滑脱或珀尔特氏病,3 个髋关节,3 名患者)、髋关节畸形(股骨头骺滑脱或珀尔特氏病,3 个髋关节,3 名患者);3个髋关节,3名患者)、曾行股骨或髋臼截骨术(2个髋关节,2名患者)、股骨头血管性坏死(0)、神经肌肉疾病史(埃勒斯-丹洛斯综合征;3个髋关节,3名患者)或类风湿病史(强直性脊柱炎;1个髋关节,1名患者),以及CT不包括膝关节时(19个髋关节,19名患者)。根据这些标准,共纳入了 227 名患者的 249 个髋关节。在双侧髋关节均有症状的患者中,随机选择一侧纳入,剩下 227 名患者的 227 个髋关节用于进一步分析。患者的中位年龄(范围)为34岁(19至55岁),中位体重指数(范围)为27 kg/m2(16至55 kg/m2),63%(144例)为女性;他们接受了髋关节镜手术(74% [168例])或髋臼周围截骨术(23% [52例])。患者接受了CT扫描,使用Murphy(低<10°;正常:10°至25°;高>25°)或Reikerås(低<5°;正常:5°至20°;高>20°)技术测量髋臼版面和股骨版面。计算麦氏指数(低:< 20°;正常:20°至 50°;高 > 50°)。根据墨菲测量的中心髋臼版面和股骨版面,将髋关节按其旋转轮廓分为四组:不稳定旋转轮廓:高(髋臼版本高,股骨版本高)或中等(髋臼版本高,股骨版本正常或髋臼版本正常,股骨版本高);正常旋转轮廓(髋臼版本正常,股骨版本正常);代偿旋转轮廓(髋臼版本低,股骨版本高或髋臼版本高,股骨版本低);以及撞击旋转轮廓(髋臼版本低,股骨版本低):高(低髋臼版,低股骨版)或中(低髋臼版,正常股骨版或正常髋臼版,低股骨版)。由两名骨科住院医师对数字化图像进行人工X光评估,并由资深作者(受过髋关节保存和关节成形术研究培训的外科医生)对随机抽取的25%的测量结果进行重复测量。使用双向混合模型的相关系数计算观察者间和观察者内的可靠性,结果显示墨菲技术测量(类内相关系数 0.908 [95% 置信区间 0.80 至 0.97])和 Reikerås 技术测量(ICC 0.938 [95% CI 0.81 至 0.97])的一致性极佳。使用国际髋关节结果工具(iHOT-33)记录了患者报告的测量结果(从0到100;从较差到最佳)。 使用 Murphy 技术的平均髋臼旋转角度为 18° ± 6°,平均股骨旋转角度为 24° ± 12°,使用 Reikerås 方法的平均股骨旋转角度为 12° ± 11°。根据 Murphy 和 Reikerås 方法,80% 的髋关节(227 例中的 181 例)髋臼翻转正常,42%(227 例中的 96 例)至 63%(142 至 227 例)的股骨翻转正常,67%(152 至 227 例)的麦基宾指数正常。与不稳定型(髋臼版或股骨版偏高;33 ± 9 岁;P = 0.5)患者相比,撞击型(髋臼版或股骨版偏低)患者的年龄更大(39 ± 9 岁)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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