Aghamalyan Hayk H, Vetoshkin Aleksandr A
Wigmore Clinic, Yerevan, Armenia.
Sports Trauma and Arthroscopic Surgery Department, Mikayelyan University Hospital, Yerevan, Armenia.
Arthrosc Tech. 2025 Jun 4;14(8):103666. doi: 10.1016/j.eats.2025.103666. eCollection 2025 Aug.
Medial meniscal root tears (MMRTs) are significant injuries that can lead to knee instability, joint dysfunction, and severe pain. Posterior root tears of the medial meniscus are primarily degenerative and typically affect middle-aged women with a high body mass index, and they may account for up to 21% of all meniscal tears. The need for reliable arthroscopic techniques for repair is critical. Numerous techniques have been proposed for the arthroscopic reconstruction of MMRTs; however, recurrence rates remain a concern. Traditional methods often involve various suture configurations that do not adequately address the mechanical forces acting on the meniscus during weight-bearing activities. To improve surgical outcomes, we describe the triple cross-locking technique, a more secure and reliable method for arthroscopic repair of MMRTs. This technique uses a 45° curved hook and 3 sutures: 2 for the posterior horn of the medial meniscus and 1 for the joint capsule. Each suture forms a loop that interlocks with the others. This cross-locking mechanism reduces the risk of creating different tension vectors that can lead to the "cut-through" phenomenon often seen in meniscal repair. By ensuring that all sutures effectively share a common pulling force, our technique creates a singular vector of traction. This is critical in maintaining the stability of the repair during the healing process.
内侧半月板根部撕裂(MMRTs)是严重的损伤,可导致膝关节不稳定、关节功能障碍和剧痛。内侧半月板后根部撕裂主要是退行性病变,通常影响体重指数较高的中年女性,其在所有半月板撕裂中所占比例可能高达21%。因此,需要可靠的关节镜技术进行修复至关重要。已经提出了许多用于关节镜下重建MMRTs的技术;然而,复发率仍然令人担忧。传统方法通常涉及各种缝线配置,但在负重活动期间,这些配置无法充分应对作用于半月板的机械力。为了改善手术效果我们描述了一种三重交叉锁定技术,这是一种用于关节镜下修复MMRTs的更安全可靠的方法。该技术使用一个45°弯针和3根缝线:2根用于内侧半月板后角,1根用于关节囊。每根缝线形成一个与其他缝线相互锁定的环。这种交叉锁定机制降低了产生不同张力向量的风险,而这种风险可能导致半月板修复中常见的“穿透”现象。通过确保所有缝线有效地共享共同的拉力,我们的技术创造了一个单一的牵引向量。这对于在愈合过程中维持修复的稳定性至关重要。