Hooper Nikki, Johnson Liam, Banting Nicole, Pathy Rubini, Schaeffer Emily K, Bone Jeffrey N, Zomar Bryn O, Sandhu Ash, Siu Caitlyn, Cooper Anthony P, Reilly Christopher, Mulpuri Kishore
Department of Orthopaedic Surgery, University of Otago, Christchurch 9016, New Zealand.
Department of Orthopaedic Surgery, Queensland Children's Hospital, Brisbane, QLD 4101, Australia.
J Clin Med. 2024 May 16;13(10):2946. doi: 10.3390/jcm13102946.
Fractures through the physis account for 18-30% of all paediatric fractures, leading to growth arrest in up to 5.5% of cases. We have limited knowledge to predict which physeal fractures result in growth arrest and subsequent deformity or limb length discrepancy. The purpose of this study is to identify factors associated with physeal growth arrest to improve patient outcomes. This prospective cohort study was designed to develop a clinical prediction model for growth arrest after physeal injury. Patients ≤ 18 years old presenting within four weeks of injury were enrolled if they had open physes and sustained a physeal fracture of the humerus, radius, ulna, femur, tibia or fibula. Patients with prior history of same-site fracture or a condition known to alter bone growth or healing were excluded. Demographic data, potential prognostic indicators, and radiographic data were collected at baseline, during healing, and at one- and two-years post-injury. A total of 332 patients had at least six months of follow-up or a diagnosis of growth arrest within six months of injury. In a comparison analysis, patients who developed growth arrest were more likely to be older (12.8 years vs. 9.4 years) and injured on the right side (53.0% vs. 45.7%). Initial displacement and angulation rates were higher in the growth arrest group (59.0% vs. 47.8% and 47.0% vs. 38.8%, respectively), but the amount of angulation was similar (27.0° vs. 28.4°). Rates of growth arrest were highest in distal femoral fractures (86%). The incidence of growth arrest in this patient population appears higher than the past literature reports at 30.1%. However, there may be variances in diagnostic criteria for growth arrest, and the true incidence may be lower. A number of patients were approaching skeletal maturity, and any growth arrest is likely to have less clinical significance in these cases. Further prospective long-term follow-up is required to determine risk factors, incidence, and true clinical impact of growth arrest when it does occur.
通过骨骺的骨折占所有儿童骨折的18% - 30%,在高达5.5%的病例中会导致生长停滞。我们预测哪些骨骺骨折会导致生长停滞以及随后的畸形或肢体长度差异的知识有限。本研究的目的是确定与骨骺生长停滞相关的因素,以改善患者预后。这项前瞻性队列研究旨在开发一种骨骺损伤后生长停滞的临床预测模型。年龄≤18岁且在受伤后四周内就诊的患者,如果其骨骺开放且肱骨、桡骨、尺骨、股骨、胫骨或腓骨发生骨骺骨折,则纳入研究。有同部位骨折既往史或已知会改变骨生长或愈合情况的患者被排除。在基线、愈合期间以及受伤后一年和两年收集人口统计学数据、潜在的预后指标和影像学数据。共有332例患者进行了至少六个月的随访或在受伤后六个月内被诊断为生长停滞。在一项对比分析中,发生生长停滞的患者年龄更大(12.8岁对9.4岁)且右侧受伤的可能性更高(53.0%对45.7%)。生长停滞组的初始移位和成角率更高(分别为59.0%对47.8%和47.0%对38.8%),但成角量相似(27.0°对28.4°)。股骨远端骨折的生长停滞率最高(86%)。该患者群体中生长停滞的发生率为30.1%,似乎高于过去的文献报道。然而,生长停滞的诊断标准可能存在差异,实际发生率可能更低。许多患者已接近骨骼成熟,在这些病例中任何生长停滞可能临床意义较小。需要进一步进行前瞻性长期随访,以确定生长停滞发生时的风险因素、发生率和真正的临床影响。