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Cementless Long-Stem Reverse Total Shoulder Arthroplasty as Primary Treatment for Metadiaphyseal Humeral Shaft Fractures. 无骨水泥长柄反向全肩关节成形术作为肱骨干骺端骨折的主要治疗方法。
IF 1 Q3 SURGERY Pub Date : 2024-09-23 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00081
Austin Witt, Eddie Y Lo, Alvin Ouseph, Sumant G Krishnan
<p><strong>Background: </strong>The use of cementless diaphysis-fitting stems has been shown to be an effective treatment option for cases of metadiaphyseal humeral fracture. Complex metadiaphyseal fractures are those that extend below the surgical neck into the diaphysis, which can compromise the metaphyseal fixation of typical arthroplasty designs. The presently described surgical technique circumvents the potential risks associated with the use of cement while also permitting the treatment of common concomitant pathologies, such as arthritis and rotator cuff tendinopathy. Evidence supports the efficacy of this technique, showcasing consistent rates of healing, pain relief, and functional recovery, as well as acceptable complication rates compared with alternative surgical options.</p><p><strong>Description: </strong>The surgical procedure is performed with the patient in a modified beach chair position. A deltopectoral approach is utilized in order to expose the humerus and glenoid. In cases in which the tuberosity is fractured, it is carefully tagged for subsequent repair. The metadiaphyseal extension of the fracture is exposed, and reduction is performed with cerclage cable augmentation as needed. When direct reduction proves challenging, the humeral prosthesis is utilized to aid in reduction. Full-length humeral radiographs and a humeral sounder are utilized to guide the placement of a trial prosthesis, ensuring that the stem spans 2 canal diameters past the fracture and restores the appropriate humeral length. The medullary stem is utilized as support for fracture fragment reduction, with use of a combination of bone stitching and cerclage cables as required. Fractures with compromised proximal humeral bone stock can be further augmented with extramedullary strut allografts and cerclage cables. The allograft strut fixation acts as a neutralization plate to maintain rotational control. The joint is reduced, and fixation of the subscapularis and tuberosity is achieved with use of a transosseous suture technique. This technique combines the use of arthroplasty as well as standard osteosynthesis principles to treat complex metadiaphyseal humerus fractures.</p><p><strong>Alternatives: </strong>Nonoperative treatment may be indicated in a primary setting and represents a multifactorial patient-specific decision. Other surgical options include open reduction with internal fixation with plates or an intramedullary humeral nail, and cemented long-stem arthroplasty. If the fracture is too distal and the surgeon is unable to achieve a length of 2 canal diameters for distal fixation, alternative treatment strategies such as cementation may be required.</p><p><strong>Rationale: </strong>This procedure is most often performed in elderly patients with osteoporosis, who often also have comminuted fracture patterns and conditions such as glenohumeral arthritis or chronic rotator cuff pathology<sup>1,5,6,13,15</sup>. Whereas open reduction and internal fixa
缩略语:RTSA=反向全肩关节置换术IMN=髓内钉ORIF=开放复位和内固定AVN=血管性坏死AP=前胸CT=计算机地形图TSA=全肩关节置换术XR=平片FU=随访SST=简单肩关节测试ASES=美国肩肘外科医生DASH=手臂、肩部和手部残疾PROM=患者报告的结果测量ROM=活动范围。
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引用次数: 0
Primary Repair of Complete Quadriceps Tendon Rupture with Extensor Mechanism Deficit. 外展机制缺陷的股四头肌肌腱完全断裂的初级修复术
IF 1 Q3 SURGERY Pub Date : 2024-09-23 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00045
Tyler J Thorne, Willie Dong, Thomas F Higgins, David L Rothberg, Justin M Haller, Lucas S Marchand
<p><strong>Background: </strong>Whereas partial quadriceps tendon ruptures may be treated nonoperatively if the extensor mechanism remains functional, complete ruptures require primary operative repair to achieve optimal functional results<sup>1,2</sup>. The 2 most common techniques are the use of transosseous tunnels and the use of suture anchors. The goal of these procedures is to reconstruct and restore mobility of the extensor mechanism of the leg.</p><p><strong>Description: </strong>The patient is positioned supine with the injured leg exposed. A midline incision to the knee is made over the quadriceps tendon defect, exposing the distal quadriceps and proximal patella. Irrigation is utilized to evacuate the residual hematoma, and the distal quadriceps and proximal patella are debrided of degenerative tissue. When utilizing transosseous tunnels, a nonabsorbable suture is passed full-thickness through the medial or lateral half of the quadriceps tendon in a locked, running pattern (i.e., Krackow). A second nonabsorbable suture is passed full-thickness through the other half of the tendon. There should then be 4 loose strands at the distal quadriceps. The anatomic insertion of the quadriceps tendon is roughened with a sharp curet to expose fresh cancellous bone. Three parallel bone tunnels are created along the longitudinal axis of the patella. The knee is placed in full extension, with a bump under the heel in order to provide slight recurvatum at the knee and to allow for a properly tensioned repair. In pairs, the free ends of the sutures are passed through the tunnels. The sutures are tensioned and tied together in pairs at the distal aspect of the patella. Alternatively, when utilizing suture anchors, Arthrex FiberTape is passed full-thickness through the medial or lateral half of the quadriceps tendon in a Krackow pattern. A second FiberTape is passed full-thickness through the other half of the tendon. There should then be 4 loose tails at the distal quadriceps. The 2 tails of the medial FiberTape are placed into a knotless Arthrex SwiveLock anchor; this step is repeated for the 2 lateral tails. The anatomic insertion of the quadriceps tendon is roughened to expose fresh cancellous bone. With use of a 3.5-mm drill, create 2 parallel drill holes along the longitudinal axis of the patella, with sufficient depth to bury the SwiveLock anchor. Unlike in the transosseous tunnel technique, these drill holes do not run the length of the patella. The holes are then tapped. Following irrigation, the anchors are tensioned into the bone tunnels, and extra tape is cut flush to the bone. For both techniques, additional tears in the medial and lateral retinacula are repaired if present.</p><p><strong>Alternatives: </strong>Alternatives include nonoperative treatment with use of a hinged knee brace; operative treatment with use of simple sutures; and augmentation with use of wire reinforcement, cancellous screws, the Scuderi technique, the Codivilla tech
最常见的并发症是膝关节僵硬和股四头肌萎缩,这两种情况都可以通过适当的康复治疗来解决。不过,即使出现这些并发症,患者也能保持足够的膝关节功能2,3。更严重的并发症很少见(2-4,10-12)。延迟手术治疗与较差的疗效和较高的并发症发生率有关1,3,4,10,11:重要提示:进行 Krackow 缝合时,在进行另一个组织穿刺之前,务必拉紧并去除所有松弛组织。为了将风险降至最低并达到最佳手术效果,应在受伤后尽快进行手术修复。如果担心主要结构不稳定,可以使用钢丝加固、松质骨螺钉、Scuderi 技术、Codivilla 技术、张力筋膜加固和/或 MERSILENE 胶带进行加固。识别并修复髌网膜撕裂,这是股四头肌完全断裂时常见的并发损伤:MRI = 磁共振成像。
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引用次数: 0
Microsurgical Techniques for Digital Nerve Injuries and Vascular Injuries. 数字神经损伤和血管损伤的显微外科技术。
IF 1 Q3 SURGERY Pub Date : 2024-09-13 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00033
Eric K Montgomery, Dawn M G Rask, David J Wilson, Benjamin F Plucknette, Casey M Sabbag
<p><strong>Background: </strong>Tension-free end-to-end digital nerve repair or reconstruction under loupe or microscope magnification are surgical treatment options for lacerated digital nerves in patients with multiple injured digits, injuries to the border digits, or injuries to the thumb, with the goal of improved or restored sensation and a decreased risk of painful traumatic neuroma formation. Different techniques for primary repair have been described and include epineurial sutures, nerve "glues" including fibrin-based gels<sup>1,2</sup>, biologic or synthetic absorbable or nonabsorbable nerve wraps or conduits, or a combination of these materials. Nerve "glues" have demonstrated decreased initial gapping at the repair site<sup>3</sup> and an increased tensile load to failure when utilized with a nerve wrap or conduit<sup>4,5</sup>. When there is a gap or defect in the nerve and primary repair is not feasible, nerve allograft and autograft provide similar results and are both better options than conduit reconstruction<sup>6</sup>. Concomitant or isolated digital vascular injuries may also be surgically treated with end-to-end repair in a dysvascular digit, with the goal of digit and function preservation. In the absence of complete circumferential injury or complete amputation, redundant or collateral flow may be present. Single digital artery injuries often do not need to be repaired because of the collateral flow from the other digital artery.</p><p><strong>Description: </strong>Digital nerve and vascular injuries are often found in the context of traumatic wounds. In such cases, surgical exploration is often required, with possible surgical extension of the wounds to facilitate identification of the neurovascular bundles. The proximal and distal ends of the transected nerve and/or artery are identified, and the traumatized ends are incised sharply, maintaining as much length as possible to facilitate end-to-end repair, interposition of a graft, and the use of a conduit. The proximal and distal aspects of the nerve and/or artery are appropriately mobilized by dissecting or releasing any scar tissue or soft tissue that may be tethering the structure. The defect is measured in the natural resting position of the digit. Gentle flexion of the digit may be performed to facilitate a primary repair in the setting of very small defects. Primary repair or reconstruction is selected, and an 8-0 or 9-0 nonabsorbable monofilament suture is utilized to anastomose the appropriate structures under magnification with use of a single or double stitch<sup>6</sup>. A tubular nerve conduit is placed prior to epineurial suturing, or a nerve conduit wrap is applied circumferentially around the repair site and augmented with a fibrin glue. The wound is then irrigated and closed in a standard fashion, as determined by the presence of any soft-tissue or structural injury.</p><p><strong>Alternatives: </strong>Alternatives to primary repair include the use of cond
背景:在放大镜或显微镜放大下进行无张力端对端数字神经修复或重建,是针对多指受伤、边缘指受伤或拇指受伤患者的数字神经裂伤的手术治疗选择,目的是改善或恢复感觉,并降低创伤性神经瘤形成的疼痛风险。目前已有不同的初级修复技术,包括会阴缝合、神经 "粘合剂"(包括纤维蛋白凝胶1,2)、生物或合成的可吸收或不可吸收神经包膜或导管,或这些材料的组合。神经 "粘合剂 "已证明可减少修复部位的初始间隙3,而与神经包膜或导管一起使用时,可增加拉伸载荷,使其失效4,5。当神经出现间隙或缺损且无法进行初次修复时,神经同种异体移植和自体移植的效果相似,都比导管重建更好6。伴有或孤立的数字血管损伤也可通过手术治疗,对血管发育不良的手指进行端对端修复,以达到保留手指和功能的目的。在没有完全周缘损伤或完全截肢的情况下,可能会出现多余或侧支血流。单个数字动脉损伤通常无需修复,因为其他数字动脉会提供侧支血流:数字神经和血管损伤通常发生在外伤的情况下。在这种情况下,通常需要进行手术探查,并可能通过手术扩大伤口,以方便识别神经血管束。确定横断神经和/或动脉的近端和远端,锐性切开受创末端,尽可能保持其长度,以便于端对端修复、移植和使用导管。通过剥离或释放可能拴住结构的任何疤痕组织或软组织,适当地移动神经和/或动脉的近端和远端。在手指的自然静止位置测量缺损。对于非常小的缺损,可以轻柔地屈曲手指,以方便进行初级修复。选择初级修复或重建,使用 8-0 或 9-0 非吸收性单丝缝合线在放大镜下吻合适当的结构,使用单针或双针6。在会阴部缝合前放置管状神经导管,或在修复部位周缘使用神经导管包裹,并用纤维蛋白胶进行增强。然后根据软组织或结构损伤的情况,以标准方式对伤口进行冲洗和缝合:初次修复的替代方法包括使用导管或自体或异体移植。需要重建的因素包括间隙和软组织完整性差,这可能与损伤机制有关。修复或重建的替代方法包括治疗软组织或结构损伤,但不同时修复或重建受损的数字神经或血管:理由:对数字神经进行初级端对端修复和重建可增加患者感觉恢复的可能性,而动脉修复可保留指骨,避免截肢。手指的感觉对于精细运动技能和与环境的互动非常重要,对于依赖双手工作和/或娱乐的患者尤为重要。由于这些原因,小指尺侧、食指桡侧和拇指两侧等边缘手指的数字神经受到特别关注:预期结果:修复或重建数字神经的手术干预可增加恢复受伤前感觉的可能性;但完全恢复的几率仍然很低。2019 年发表的一篇关于成人数字神经修复术疗效的系统性综述显示,接受修复术并报告恢复到 Highet 4 级的患者平均比例为 24%(范围为 6% 至 60%)8。手术和非手术治疗患者的不良事件发生率相当,并发症包括神经瘤、过度麻醉和感染:在进行修复时,使用微血管背景材料可以更好地观察近端和远端。重要的是,要锐利地铡断神经末端,使撕裂处清爽,为修复提供健康的神经末端。修复缝合线需要穿过会神经,注意不要穿过神经束:OR=手术室PIP=近端指间PPT=凝血酶原时间PTT=部分凝血活酶时间。
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引用次数: 0
Cementless, Cruciate-Retaining Primary Total Knee Arthroplasty Using Conventional Instrumentation: Technical Pearls and Intraoperative Considerations. 使用传统器械的无骨水泥、保留椎板的初级全膝关节置换术:技术要点和术中注意事项。
IF 1 Q3 SURGERY Pub Date : 2024-09-13 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00036
Andrew B Harris, Julius K Oni
<p><strong>Background: </strong>Total knee arthroplasty (TKA) is commonly indicated for patients with severe tibiofemoral osteoarthritis in whom nonoperative treatment has failed. TKA is one of the most commonly performed orthopaedic surgical procedures in the United States and is associated with substantial improvements in pain, function, and quality of life<sup>1-3</sup>. The procedure may be performed with cemented, cementless, or hybrid cemented and cementless components<sup>4,5</sup>. Cementless TKA utilizing contemporary implant designs has been demonstrated to have excellent long-term survival and outcomes in patients who are appropriately indicated for this procedure<sup>5-8</sup>. The preference of the senior author is to perform this procedure with use of a cruciate-retaining implant design when feasible, and according to the principles of mechanical alignment to guide osseous resection. It should be noted that nearly all recent studies on outcomes following cementless TKA utilize traditional mechanical alignment<sup>7-9</sup>. Alternative alignment strategies, such as gap balancing and kinematic alignment, have not been as well studied in cementless TKA; however, preliminary short-term studies suggest comparable survivorship with restricted kinematic alignment and gap balancing compared with mechanical alignment in patients undergoing cementless TKA<sup>10,11</sup>.</p><p><strong>Description: </strong>Our preferred surgical technique for cementless TKA begins with the patient in the supine position. A thigh tourniquet is applied, and a valgus post is set at the level of the tourniquet. A flexion pad is also placed at 90°, with a bar at 20°. After sterile skin preparation and draping, a time-out is conducted, and the tourniquet is raised. The surgeon makes a medial parapatellar incision, which begins from 1 cm medial to the medial edge of the patella, extending from the tibial tubercle to 2 fingers above the proximal pole of the patella, using a knife and with the knee at 90° of flexion. Scissors are then used to find the fat above the fascia and dissect distally in the same plane. A knife is used to perform a high vastus-splitting, medial parapatellar arthrotomy. Pickups and scissors are then used to perform a partial medial synovectomy, and electrocautery is used to perform a medial peel. As the procedure progresses further medial, the infrapatellar fat pad is excised, followed by the anterior femoral synovial tissue. The surgeon then cuts through the anterior cruciate ligament footprint and origin with the knee flexed before sawing through the tibial spines to decrease the height of the tibial bone block. To prepare the femur, a step drill is inserted into the femoral canal, and the intramedullary alignment guide is placed with the distal femoral cutting guide set to 5° of valgus. The distal femoral cutting guide is then pressed firmly against the distal femur, making sure that the medial side is touching bone, and threaded pins are
我们建议在使用龙骨状胫骨植入物时反向钻孔,用骨填充钻孔壁,而不是将其磨掉,我们认为这样可以增加对骨生长的支持。如果反向钻孔时几乎没有阻力,我们认为这是无骨水泥 TKA 的不良预后信号,应考虑进行骨水泥固定。在确定胫骨基底板的尺寸时,目标是最大限度地增大胫骨的尺寸,以适合皮质骨边缘的顶部,而不会悬空。无骨水泥组件的骨切口必须完美。应检查胫骨的所有四个象限,以确认表面是否平整。软组织可能会卡在种植体下,这一点对于无骨水泥种植体尤为重要,因为这可能会影响骨的生长。在试戴过程中,确保试戴器完全与骨平齐,这是防止拨动和/或松动的额外检查。当冲击股骨组件时,我们建议施加一个伸展力,这样插入器的重量就不会将组件拉成屈曲;但是,过度的伸展力也可能导致骨折:IV=静脉注射AP=前胸。
{"title":"Cementless, Cruciate-Retaining Primary Total Knee Arthroplasty Using Conventional Instrumentation: Technical Pearls and Intraoperative Considerations.","authors":"Andrew B Harris, Julius K Oni","doi":"10.2106/JBJS.ST.23.00036","DOIUrl":"https://doi.org/10.2106/JBJS.ST.23.00036","url":null,"abstract":"&lt;p&gt;&lt;strong&gt;Background: &lt;/strong&gt;Total knee arthroplasty (TKA) is commonly indicated for patients with severe tibiofemoral osteoarthritis in whom nonoperative treatment has failed. TKA is one of the most commonly performed orthopaedic surgical procedures in the United States and is associated with substantial improvements in pain, function, and quality of life&lt;sup&gt;1-3&lt;/sup&gt;. The procedure may be performed with cemented, cementless, or hybrid cemented and cementless components&lt;sup&gt;4,5&lt;/sup&gt;. Cementless TKA utilizing contemporary implant designs has been demonstrated to have excellent long-term survival and outcomes in patients who are appropriately indicated for this procedure&lt;sup&gt;5-8&lt;/sup&gt;. The preference of the senior author is to perform this procedure with use of a cruciate-retaining implant design when feasible, and according to the principles of mechanical alignment to guide osseous resection. It should be noted that nearly all recent studies on outcomes following cementless TKA utilize traditional mechanical alignment&lt;sup&gt;7-9&lt;/sup&gt;. Alternative alignment strategies, such as gap balancing and kinematic alignment, have not been as well studied in cementless TKA; however, preliminary short-term studies suggest comparable survivorship with restricted kinematic alignment and gap balancing compared with mechanical alignment in patients undergoing cementless TKA&lt;sup&gt;10,11&lt;/sup&gt;.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Description: &lt;/strong&gt;Our preferred surgical technique for cementless TKA begins with the patient in the supine position. A thigh tourniquet is applied, and a valgus post is set at the level of the tourniquet. A flexion pad is also placed at 90°, with a bar at 20°. After sterile skin preparation and draping, a time-out is conducted, and the tourniquet is raised. The surgeon makes a medial parapatellar incision, which begins from 1 cm medial to the medial edge of the patella, extending from the tibial tubercle to 2 fingers above the proximal pole of the patella, using a knife and with the knee at 90° of flexion. Scissors are then used to find the fat above the fascia and dissect distally in the same plane. A knife is used to perform a high vastus-splitting, medial parapatellar arthrotomy. Pickups and scissors are then used to perform a partial medial synovectomy, and electrocautery is used to perform a medial peel. As the procedure progresses further medial, the infrapatellar fat pad is excised, followed by the anterior femoral synovial tissue. The surgeon then cuts through the anterior cruciate ligament footprint and origin with the knee flexed before sawing through the tibial spines to decrease the height of the tibial bone block. To prepare the femur, a step drill is inserted into the femoral canal, and the intramedullary alignment guide is placed with the distal femoral cutting guide set to 5° of valgus. The distal femoral cutting guide is then pressed firmly against the distal femur, making sure that the medial side is touching bone, and threaded pins are ","PeriodicalId":44676,"journal":{"name":"JBJS Essential Surgical Techniques","volume":"14 3","pages":""},"PeriodicalIF":1.0,"publicationDate":"2024-09-13","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11392501/pdf/","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"142298046","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":0,"RegionCategory":"","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 0
Open Bankart Repair with Subscapularis Split. 用肩胛下肌分割进行开放式 Bankart 修复术
IF 1 Q3 SURGERY Pub Date : 2024-09-13 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00050
Alex M Meyer, Benjamin W Hoyt, Temitope Adebayo, Dean C Taylor, Jonathan F Dickens

Background: Anterior shoulder dislocations are a common injury, especially in the young, active, male population1. Soft-tissue treatment options for shoulder instability include arthroscopic or open Bankart repair, with open Bankart repair historically having lower rates of recurrence and reoperation, faster return to activity2-4, and a similar quality of life compared with arthroscopic repair5. More recent literature has suggested similar recurrence rates between arthroscopic and open procedures6. However, open Bankart repair may be indicated in cases of recurrent instability, especially if the patient participates in high-risk sports, because open repair can provide more capsular shift through the use of extra-capsular knots7. Performing a subscapularis split decreases the likelihood of subscapularis tendon avulsion following subscapularis tendon tenotomy and subsequent repair, as has been described in the literature8.

Description: Indications for open Bankart repair include failure of arthroscopic Bankart repair, multiple dislocations, with subcritical bone loss. This surgical technique is performed via the deltopectoral approach. The subscapularis tendon is exposed and "spared" by splitting the fibers with use of a longitudinal incision between the upper 2/3 and lower 1/3 of the subscapularis. We begin the split medially near the myotendinous junction. Because the subscapularis becomes increasingly difficult to separate from the capsule as it tracks laterally, a RAY-TEC sponge is utilized to bluntly dissect. A T-shaped laterally based capsulotomy is made to expose the glenohumeral joint. The vertical aspect is made first, followed by the horizontal aspect from lateral to medial, extending to the labrum. A Fukuda retractor is placed through the split to hold the humeral head laterally. The labrum is elevated, and the glenoid is prepared with rasp. Then labrum is repaired with knotted suture anchors until it is secure. One anchor is utilized for each "hour" of the clock face, with a minimum of 3 anchors. The anchors are placed on the articular margin of the glenoid. Sutures are passed from the anchor through the capsule and tied outside the capsule. The capsulotomy is then repaired with use of a suture. The suture is utilized to pull the inferior portion superiorly. The inferior portion is taken superiorly, and the superior leaflet is imbricated over the top. Finally, an examination is performed to ensure that the humeral head can be translated to but not over the anterior and posterior glenoid rims. No repair of the subscapularis tendon insertion is required. The incision is closed with deep dermal and subcuticular suture.

Alternatives: Nonoperative treatment options include rotator cuff and periscapular strengthening or immobilization. Operative treatment options include open Bankart repair with subscapularis ten

背景:肩关节前脱位是一种常见的损伤,尤其是在年轻、活跃的男性人群中1。肩关节不稳的软组织治疗方法包括关节镜或开放式Bankart修复术,与关节镜修复术相比,开放式Bankart修复术的复发率和再次手术率较低,恢复活动更快2-4,生活质量相似5。最近的文献表明,关节镜手术和开放手术的复发率相似6。然而,开放式Bankart修复术可能适用于复发性不稳定的病例,尤其是患者参加高风险运动时,因为开放式修复术可通过使用囊外结节提供更多的囊移位7。进行肩胛下肌腱分离术可减少肩胛下肌腱撕脱的可能性,这在肩胛下肌腱腱鞘切除术和随后的修复术中都有描述8:开放性Bankart修复术的适应症包括关节镜下Bankart修复术失败、多发性脱位和亚临界骨缺失。这种手术方法通过胸骨外侧入路进行。通过在肩胛下肌上 2/3 和下 1/3 之间的纵向切口分割纤维,暴露并 "保留 "肩胛下肌腱。我们从靠近肌腱交界处的内侧开始分割。由于肩胛下肌向侧方移动时越来越难以与囊分离,因此我们使用 RAY-TEC 海绵进行钝性分离。进行 T 形侧向囊切开术以暴露盂肱关节。首先进行垂直切口,然后从外侧到内侧进行水平切口,直至盂唇。将福田牵引器穿过劈裂处,横向固定肱骨头。抬高盂唇,用锉刀准备盂体。然后用打结的缝合锚修复盂唇,直到牢固为止。钟面的每个 "小时 "使用一个锚,至少使用 3 个锚。缝合锚放置在盂关节边缘。缝合线从锚穿过关节囊,在关节囊外打结。然后使用缝线修复囊切开术。利用缝合线将下部向上方牵拉。将下部向上方牵拉,然后将上部小叶嵌顿在上部。最后,进行检查以确保肱骨头能平移到盂前缘和盂后缘,但不能超过盂前缘和盂后缘。无需修复肩胛下肌腱插入处。切口用深层真皮和皮下缝合线缝合:非手术治疗方案包括肩袖和肩胛周围加固或固定。理由:该手术与其他治疗方法的不同之处在于,它是一种开放性手术,由于关节囊可以移位并翻转,因此可以进行更稳固的修复,从而降低复发率和再次手术率。开放式 Bankart 修复术更适用于难以通过关节镜修复的大面积病变。该手术不同于其他开放式 Bankart 技术,因为肩胛下肌腱是分割而非腱切的,这样就无需修复肌腱,并降低了肩胛下肌腱修复撕脱的发生率。最后,这种手术比Latarjet手术创伤更小,因为它不需要骨性截骨和固定:重要提示:重要提示:如果单纯的肩胛下肌腱分离术不能提供足够的视野,可从小结节处松解部分肩胛下肌腱。肩胛上下神经的位置和起源可能有不同的走向,这在理论上可能会使它们面临先天性损伤的风险;然而,研究表明这种肩胛下肌腱分离术是安全的,可以防止肌肉神经变性:GBL=盂骨缺损EUA=麻醉下检查MRI=磁共振成像HSL=希尔-萨克斯病变AHCA=肱骨前周动脉。
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引用次数: 0
Tripod Fixation of Periacetabular Metastatic Lesions Using the IlluminOss Device. 使用IlluminOss装置进行髋臼周围转移病灶的三脚架固定术
IF 1 Q3 SURGERY Pub Date : 2024-09-13 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00070
Nicole L Levine, William C Eward, Brian Brigman, Alan Alper Sag, Julia D Visgauss

Background: Percutaneous tripod fixation of periacetabular lesions is performed at our institution for patients with metastatic bone disease and a need for quick return to systemic therapy. We have begun to use the IlluminOss Photodynamic Bone Stabilization System instead of the metal implants previously described in the literature because of the success of the IlluminOss implant in fixing fragility fractures about the pelvis.

Description: At our institution, the procedure is performed in the interventional radiology suite in order to allow for the use of 3D radiographic imaging and vector guidance systems. The patient is positioned prone for the transcolumnar PSIS-to-AIIS implant and posterior column/ischial tuberosity implant or supine for the anterior column/superior pubic ramus implant. Following a small incision, a Jamshidi needle with a trocar is utilized to enter the bone at the chosen start point. A hand drill is utilized to advance the Jamshidi needle according to the planned vector; alternatively, a curved or straight awl can be utilized. The 1.2-mm guidewire is placed and reamed. We place both the transcolumnar and posterior column wires at the same time to ensure that there is no interference. The balloon catheter for the IlluminOss is assembled on the back table and inserted according to the implant technique guide. The balloon is inflated and observed on radiographs in order to ensure that the cavity is filled. Monomer is then cured, and the patient is flipped for the subsequent implant. Following placement of the 3 IlluminOss devices, adjunct treatments such as cement acetabuloplasty or cryoablation can be performed.

Alternatives: Alternative treatments include traditional open fixation of impending or nondisplaced acetabular fractures in the operating room, or percutaneous implant placement in the operating room. Implant placement may be performed with the patient in the supine, lateral, or prone position, depending on surgeon preference. Alternative implants include standard metal implants such as plates and screws, or cement augmentation either alone or with percutaneous screws. Finally, ablation alone may be an alternative option, depending on tumor histology.

Rationale: Open treatment of acetabular fractures is a more morbid procedure, given the larger incision, increased blood loss, longer time under anesthesia, and increased length of recovery. Percutaneous fixation may be performed in either the operating room or interventional radiology suite, depending on the specific equipment setup at an individual institution. At our institution, we prefer utilizing the interventional radiology suite as it allows for more precise implant placement through the use of an image-based vector guidance system and 3D fluoroscopy to accurately identify safe corridors. The use of percutaneous fixation allows for faster recovery and earlier return to systemi

背景:我院为转移性骨病患者实施经皮三脚架固定髋臼周围病变的手术,这些患者需要尽快恢复系统治疗。由于IlluminOss光动力骨稳定系统在骨盆脆性骨折固定方面的成功经验,我们开始使用IlluminOss光动力骨稳定系统,而不是之前文献中描述的金属植入物:在我院,该手术在介入放射室进行,以便使用三维放射成像和矢量引导系统。患者俯卧位进行跨柱 PSIS 至 AIIS 植入术和后柱/髂骨结节植入术,仰卧位进行前柱/耻骨上横突植入术。小切口后,使用带套管的 Jamshidi 针在选定的起始点进入骨骼。使用手钻按照计划的矢量推进 Jamshidi 针;也可以使用弯锥或直锥。放置 1.2 毫米导丝并扩孔。我们同时放置跨柱导丝和后柱导丝,以确保没有干扰。在后台上组装IlluminOss的球囊导管,然后根据植入技术指南插入。对球囊进行充气,并在X光片上进行观察,以确保腔隙被填满。然后固化单体,翻转患者进行后续植入。植入3个IlluminOss装置后,可进行骨水泥髋臼成形术或冷冻消融术等辅助治疗:替代治疗方法包括在手术室对即将发生或未发生的髋臼骨折进行传统的开放式固定,或在手术室进行经皮植入。根据外科医生的偏好,植入体可在患者仰卧、侧卧或俯卧位时植入。替代植入物包括标准金属植入物,如钢板和螺钉,或单独使用或与经皮螺钉一起使用的骨水泥植入物。最后,根据肿瘤组织学,单独消融也可能是一种替代选择:理由:由于切口较大、失血量增多、麻醉时间较长、恢复时间较长,髋臼骨折的开放性治疗是一种较为危险的手术。经皮固定术可在手术室或介入放射室进行,具体取决于各机构的具体设备设置。在我们机构,我们更倾向于使用介入放射学套件,因为它可以通过使用基于图像的矢量引导系统和三维透视来准确识别安全通道,从而更精确地植入植入物。经皮固定的使用使患者恢复更快,更早地恢复系统治疗。由于IlluminOss植入物是放射性的,因此可以更好地评估疾病的进展情况,并能更好地适应非线性走廊或填充溶解病灶,以提供稳定性:术后,我们希望患者能在使用辅助设备的情况下负重。我们希望小切口能在两周内完全愈合。与开刀手术相比,患者应能更早地恢复系统治疗:使用带有Jamshidi针和套管的手钻可以帮助调整钻孔路径,并使其与计划的矢量紧密贴合。矢量引导系统可以帮助充分捕捉有骨折风险的区域,并使可膨胀的植入体具有最大的稳定性,但它们并不是实施手术的必要条件。同时植入两个后牙种植体可以避免干扰,具体方法是在扩孔和植入球囊种植体之前为两个种植体钻孔并放置导丝:CT = 计算机断层扫描PSIS = 后髂上棘AIIS = 前髂下棘。
{"title":"Tripod Fixation of Periacetabular Metastatic Lesions Using the IlluminOss Device.","authors":"Nicole L Levine, William C Eward, Brian Brigman, Alan Alper Sag, Julia D Visgauss","doi":"10.2106/JBJS.ST.23.00070","DOIUrl":"https://doi.org/10.2106/JBJS.ST.23.00070","url":null,"abstract":"<p><strong>Background: </strong>Percutaneous tripod fixation of periacetabular lesions is performed at our institution for patients with metastatic bone disease and a need for quick return to systemic therapy. We have begun to use the IlluminOss Photodynamic Bone Stabilization System instead of the metal implants previously described in the literature because of the success of the IlluminOss implant in fixing fragility fractures about the pelvis.</p><p><strong>Description: </strong>At our institution, the procedure is performed in the interventional radiology suite in order to allow for the use of 3D radiographic imaging and vector guidance systems. The patient is positioned prone for the transcolumnar PSIS-to-AIIS implant and posterior column/ischial tuberosity implant or supine for the anterior column/superior pubic ramus implant. Following a small incision, a Jamshidi needle with a trocar is utilized to enter the bone at the chosen start point. A hand drill is utilized to advance the Jamshidi needle according to the planned vector; alternatively, a curved or straight awl can be utilized. The 1.2-mm guidewire is placed and reamed. We place both the transcolumnar and posterior column wires at the same time to ensure that there is no interference. The balloon catheter for the IlluminOss is assembled on the back table and inserted according to the implant technique guide. The balloon is inflated and observed on radiographs in order to ensure that the cavity is filled. Monomer is then cured, and the patient is flipped for the subsequent implant. Following placement of the 3 IlluminOss devices, adjunct treatments such as cement acetabuloplasty or cryoablation can be performed.</p><p><strong>Alternatives: </strong>Alternative treatments include traditional open fixation of impending or nondisplaced acetabular fractures in the operating room, or percutaneous implant placement in the operating room. Implant placement may be performed with the patient in the supine, lateral, or prone position, depending on surgeon preference. Alternative implants include standard metal implants such as plates and screws, or cement augmentation either alone or with percutaneous screws. Finally, ablation alone may be an alternative option, depending on tumor histology.</p><p><strong>Rationale: </strong>Open treatment of acetabular fractures is a more morbid procedure, given the larger incision, increased blood loss, longer time under anesthesia, and increased length of recovery. Percutaneous fixation may be performed in either the operating room or interventional radiology suite, depending on the specific equipment setup at an individual institution. At our institution, we prefer utilizing the interventional radiology suite as it allows for more precise implant placement through the use of an image-based vector guidance system and 3D fluoroscopy to accurately identify safe corridors. The use of percutaneous fixation allows for faster recovery and earlier return to systemi","PeriodicalId":44676,"journal":{"name":"JBJS Essential Surgical Techniques","volume":"14 3","pages":""},"PeriodicalIF":1.0,"publicationDate":"2024-09-13","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11392467/pdf/","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"142298049","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":0,"RegionCategory":"","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 0
Off-Label Use of Buttress Calcaneal Plate in Medial Distal Femoral Fracture to Augment Internal Fixation. 在股骨内侧远端骨折中标示外使用髋臼板增强内固定术
IF 1 Q3 SURGERY Pub Date : 2024-08-27 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00088
Túlio Vinícius de Oliveira Campos, Igor Guedes Nogueira Reis, Santiago Enrique Sarmiento Molina, Gustavo Scarpelli Martins da Costa, André Guerra Domingues, Paulo de Tarso Cardoso Gomes, Marco Antônio Percope de Andrade
<p><strong>Background: </strong>High-energy traumatic fractures represent a challenge for orthopaedic surgeons because there are a great variety of morphologic patterns and associated injuries<sup>1</sup>. Although the incidence is higher in developing countries, these fractures pose a major financial burden all over the world because of their considerable hospital length of stay, time away from work, rate of failure to return to work, complications, and cost of treatment<sup>2-4</sup>. Since the fracture patterns are so variable, some cases may have a lack of available specific osteosynthesis implants, despite recent advancements in implant engineering<sup>5</sup>. However, experienced surgeons are capable of using their knowledge and creativity to treat challenging lesions with use of preexisting plates while following the principles of fracture fixation and without compromising outcomes. In 2012, Hohman et al. described for the first time the use of a calcaneal plate to treat distal femoral fractures<sup>6</sup>. In 2020, Pires et al. further expanded the indications for use of a calcaneal plate<sup>5</sup>. This technical trick is widely utilized in our trauma center, especially in comminuted fractures around the knee. The present video article provides a stepwise description of the off-label use of a calcaneal plate in a medial distal femoral fracture.</p><p><strong>Description: </strong>The key principles of this procedure involve following common fundamentals during open reduction and internal fixation, approaching the fracture, preserving soft-tissue attachments of the comminution, and reducing the main fragments. Afterwards, the off-label use of a calcaneal plate adds the special feature of being able to contain fracture fragments with plate contouring. If necessary and if osseous morphology allows, bone grafting through the plate may also be performed.</p><p><strong>Alternatives: </strong>Multiple fixation implants can be utilized in medial distal femoral fractures. Surgeon-contoured plates (i.e., locking compression plates or low-contact dynamic compression plates), multiple mini-fragment plates, cortical screws alone, cannulated cancellous screws alone, or proximal humeral plates are among the alternatives<sup>5-9</sup>. However, the lack of specific implants for fixation of fractures involving the medial femoral condyle is notable, even in developed countries<sup>10</sup>.</p><p><strong>Rationale: </strong>The small-fragment calcaneal plate is a widely available and cheaper implant compared with locking compression plates, which is especially important in developing countries. Additionally, this plate has a lower profile, covers a greater surface area, and allows multiple screws in different planes and directions. The use of this plate represents a great technical trick for surgeons to contain comminution.</p><p><strong>Expected outcomes: </strong>Patient education regarding fracture severity is mandatory, and it is important to high
背景:高能创伤性骨折是骨科医生面临的一项挑战,因为其形态和相关损伤种类繁多1。虽然发展中国家的发病率较高,但这些骨折在世界各地都造成了重大的经济负担,因为住院时间、停工时间、无法重返工作岗位的比例、并发症以及治疗费用都相当可观2-4。然而,经验丰富的外科医生能够利用自己的知识和创造力,在遵循骨折固定原则和不影响疗效的前提下,使用已有钢板治疗具有挑战性的病变。2012 年,Hohman 等人首次描述了使用小骨钢板治疗股骨远端骨折的方法6。2020年,Pires等人进一步扩大了小腿骨板的使用适应症5。这一技术诀窍在我们的创伤中心得到了广泛应用,尤其是在膝关节周围的粉碎性骨折中。本视频文章将逐步介绍在股骨内侧远端骨折中使用小腿骨板的非标签使用方法:该手术的主要原则包括遵循开放复位和内固定术中的常见基本原则、接近骨折、保留粉碎处的软组织附着物以及减少主要碎片。随后,在标示外使用小腿钢板,可通过钢板轮廓控制骨折碎片。如有必要,在骨形态允许的情况下,还可以通过钢板进行植骨:股骨远端内侧骨折可使用多种固定植入物。外科医生定制的钢板(即锁定加压钢板或低接触动态加压钢板)、多块微型钢板、单纯皮质螺钉、单纯插管松质骨螺钉或肱骨近端钢板等都是替代方案5-9。理由:与锁定加压钢板相比,小块钙钛矿钢板是一种可广泛使用且价格较低的植入物,这一点在发展中国家尤为重要。此外,这种钢板外形更小,覆盖的表面积更大,可在不同平面和方向上使用多颗螺钉。使用这种钢板是外科医生控制粉碎的一大技术诀窍:必须对患者进行有关骨折严重程度的教育,而且必须强调的是,由于形态模式差异很大,目前还没有治疗这类骨折的金标准。据我们所知,所有报道使用小关节钢板治疗此类骨折的研究都显示出良好的效果,包括良好的功能性结果和100%的骨折愈合率,无不愈合、感染或植入失败病例5,6,10-14。在迄今为止最大的病例系列研究中,Shekar 等人对 30 名接受腓骨钢板治疗股骨远端单髁骨折的患者进行了干预性前瞻性研究14。他们报告称,6 个月后患者的平均活动范围为 108° ± 28.27°,根据 Neer 评分系统测量,80% 的患者取得了极佳或满意的效果14:切勿将粉碎的骨折片与软组织分离,这将有助于骨折的还原。根据解剖学原理减少主要骨折片,并在必要时进行固定。
{"title":"Off-Label Use of Buttress Calcaneal Plate in Medial Distal Femoral Fracture to Augment Internal Fixation.","authors":"Túlio Vinícius de Oliveira Campos, Igor Guedes Nogueira Reis, Santiago Enrique Sarmiento Molina, Gustavo Scarpelli Martins da Costa, André Guerra Domingues, Paulo de Tarso Cardoso Gomes, Marco Antônio Percope de Andrade","doi":"10.2106/JBJS.ST.23.00088","DOIUrl":"10.2106/JBJS.ST.23.00088","url":null,"abstract":"&lt;p&gt;&lt;strong&gt;Background: &lt;/strong&gt;High-energy traumatic fractures represent a challenge for orthopaedic surgeons because there are a great variety of morphologic patterns and associated injuries&lt;sup&gt;1&lt;/sup&gt;. Although the incidence is higher in developing countries, these fractures pose a major financial burden all over the world because of their considerable hospital length of stay, time away from work, rate of failure to return to work, complications, and cost of treatment&lt;sup&gt;2-4&lt;/sup&gt;. Since the fracture patterns are so variable, some cases may have a lack of available specific osteosynthesis implants, despite recent advancements in implant engineering&lt;sup&gt;5&lt;/sup&gt;. However, experienced surgeons are capable of using their knowledge and creativity to treat challenging lesions with use of preexisting plates while following the principles of fracture fixation and without compromising outcomes. In 2012, Hohman et al. described for the first time the use of a calcaneal plate to treat distal femoral fractures&lt;sup&gt;6&lt;/sup&gt;. In 2020, Pires et al. further expanded the indications for use of a calcaneal plate&lt;sup&gt;5&lt;/sup&gt;. This technical trick is widely utilized in our trauma center, especially in comminuted fractures around the knee. The present video article provides a stepwise description of the off-label use of a calcaneal plate in a medial distal femoral fracture.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Description: &lt;/strong&gt;The key principles of this procedure involve following common fundamentals during open reduction and internal fixation, approaching the fracture, preserving soft-tissue attachments of the comminution, and reducing the main fragments. Afterwards, the off-label use of a calcaneal plate adds the special feature of being able to contain fracture fragments with plate contouring. If necessary and if osseous morphology allows, bone grafting through the plate may also be performed.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Alternatives: &lt;/strong&gt;Multiple fixation implants can be utilized in medial distal femoral fractures. Surgeon-contoured plates (i.e., locking compression plates or low-contact dynamic compression plates), multiple mini-fragment plates, cortical screws alone, cannulated cancellous screws alone, or proximal humeral plates are among the alternatives&lt;sup&gt;5-9&lt;/sup&gt;. However, the lack of specific implants for fixation of fractures involving the medial femoral condyle is notable, even in developed countries&lt;sup&gt;10&lt;/sup&gt;.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Rationale: &lt;/strong&gt;The small-fragment calcaneal plate is a widely available and cheaper implant compared with locking compression plates, which is especially important in developing countries. Additionally, this plate has a lower profile, covers a greater surface area, and allows multiple screws in different planes and directions. The use of this plate represents a great technical trick for surgeons to contain comminution.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Expected outcomes: &lt;/strong&gt;Patient education regarding fracture severity is mandatory, and it is important to high","PeriodicalId":44676,"journal":{"name":"JBJS Essential Surgical Techniques","volume":"14 3","pages":""},"PeriodicalIF":1.0,"publicationDate":"2024-08-27","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11346833/pdf/","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"142082039","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":0,"RegionCategory":"","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 0
Robot-Assisted Patellofemoral Arthroplasty. 机器人辅助髌骨关节成形术
IF 1 Q3 SURGERY Pub Date : 2024-08-22 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00042
Gloria Coden, Lauren Schoeller, Eric L Smith
<p><strong>Background: </strong>Patellofemoral arthroplasty is indicated in patients with isolated patellofemoral arthritis in whom nonoperative treatment has failed<sup>2</sup>. The goal of the presently described procedure is to provide relief from patellofemoral arthritis pain while maintaining native knee kinematics<sup>2</sup>.</p><p><strong>Description: </strong>Patient radiographs are carefully reviewed for isolated patellofemoral arthritis in order to determine the appropriateness of robotic-assisted patellofemoral arthroplasty. Magnetic resonance imaging can be performed preoperatively to help confirm isolated patellofemoral arthritis. We perform this procedure with use of the MAKO Surgical Robot (Stryker). Preoperative computed tomography is performed to plan the bone resection, the size of the implant, and the positioning of the device. The steps of the procedure include (1) medial parapatellar arthrotomy, (2) intraoperative inspection to confirm isolated patellofemoral arthritis, (3) patellar resurfacing, (4) placement of optical arrays and trochlear registration, (5) trochlear resection, (6) trialing of implants, (7) removal of the optical array, (8) impaction of final implants, (9) confirmation of appropriate patellar tracking, and (10) closure.</p><p><strong>Alternatives: </strong>Alternatives to patellofemoral arthroplasty include standard nonoperative treatment, bicompartmental arthroplasty, total knee arthroplasty, tibial tubercle osteotomy, partial lateral facetectomy, and arthroscopy<sup>2</sup>.</p><p><strong>Rationale: </strong>Patellofemoral arthroplasty is indicated in patients with isolated patellofemoral arthritis in whom nonoperative treatment has failed<sup>2</sup>. Patellofemoral arthroplasty may be superior to total knee arthroplasty because it helps treat pain that affects patient quality of life and activities of daily living while also preserving greater tibiofemoral bone stock<sup>2</sup>. We recommend against performing patellofemoral arthroplasty in patients with arthritis of the tibiofemoral joints<sup>2</sup>.</p><p><strong>Expected outcomes: </strong>In properly selected patients, outcomes include improvement in patient pain and function<sup>1</sup>. One study found that robotic-assisted patellofemoral arthroplasty may result in improved patellar tracking compared with non-robotic-assisted patellofemoral arthroplasty<sup>1</sup>; however, functional outcomes were found to be similar between procedures, and data for all non-robotic-assisted controls were retrospectively captured<sup>1</sup>.</p><p><strong>Important tips: </strong>Confirm isolated patellofemoral arthritis on radiographs and/or magnetic resonance imaging.Review the preoperative plan for appropriate positioning of the trochlear implant.○ Confirm coverage of the trochlear groove.○ Avoid medial overhang.○ Avoid lateral overhang.○ Avoid anterior femoral notching.○ Avoid impingement of the trochlear component into the notch.○ Avoid excessive promine
背景:髌骨股骨关节置换术适用于非手术治疗无效的孤立性髌骨股骨关节炎患者2。目前所述手术的目的是缓解髌骨关节炎疼痛,同时保持膝关节的原生运动学特性2:为确定机器人辅助髌骨关节置换术是否合适,我们会仔细检查患者的X光片,以确定是否存在孤立的髌骨关节炎。术前可进行磁共振成像,以帮助确认孤立性髌股关节炎。我们使用MAKO手术机器人(史赛克)进行该手术。术前通过计算机断层扫描来规划骨切除、植入物的大小和装置的位置。手术步骤包括:(1) 内侧髌骨旁关节切开术,(2) 术中检查以确认孤立的髌股关节炎,(3) 髌骨重置,(4) 放置光学阵列和蹄状关节置位,(5) 蹄状关节切除,(6) 植入物试戴,(7) 移除光学阵列,(8) 植入最终植入物,(9) 确认适当的髌骨跟踪,(10) 关闭:髌骨股关节置换术的替代方法包括标准非手术治疗、双室关节置换术、全膝关节置换术、胫骨结节截骨术、部分外侧面切除术和关节镜手术2:髌骨股骨关节置换术适用于非手术治疗无效的孤立性髌骨股骨关节炎患者2。髌股关节置换术可能优于全膝关节置换术,因为它有助于治疗影响患者生活质量和日常生活的疼痛,同时还能保留更多的胫股骨骨量2。我们建议不要对患有胫骨股骨关节炎的患者实施髌骨股骨关节置换术2:对于经过适当选择的患者,其结果包括患者的疼痛和功能得到改善1。一项研究发现,与非机器人辅助的髌骨关节置换术相比,机器人辅助的髌骨关节置换术可能会改善髌骨跟踪1;然而,研究发现不同手术的功能结果相似,所有非机器人辅助对照组的数据均为回顾性采集1:在X光片和/或磁共振成像上确认孤立的髌股关节炎。复查术前计划,确定蹄状关节植入物的适当位置。机器人辅助下的髋臼螺钉置换术准确、高效:CT = 计算机断层扫描。
{"title":"Robot-Assisted Patellofemoral Arthroplasty.","authors":"Gloria Coden, Lauren Schoeller, Eric L Smith","doi":"10.2106/JBJS.ST.23.00042","DOIUrl":"10.2106/JBJS.ST.23.00042","url":null,"abstract":"&lt;p&gt;&lt;strong&gt;Background: &lt;/strong&gt;Patellofemoral arthroplasty is indicated in patients with isolated patellofemoral arthritis in whom nonoperative treatment has failed&lt;sup&gt;2&lt;/sup&gt;. The goal of the presently described procedure is to provide relief from patellofemoral arthritis pain while maintaining native knee kinematics&lt;sup&gt;2&lt;/sup&gt;.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Description: &lt;/strong&gt;Patient radiographs are carefully reviewed for isolated patellofemoral arthritis in order to determine the appropriateness of robotic-assisted patellofemoral arthroplasty. Magnetic resonance imaging can be performed preoperatively to help confirm isolated patellofemoral arthritis. We perform this procedure with use of the MAKO Surgical Robot (Stryker). Preoperative computed tomography is performed to plan the bone resection, the size of the implant, and the positioning of the device. The steps of the procedure include (1) medial parapatellar arthrotomy, (2) intraoperative inspection to confirm isolated patellofemoral arthritis, (3) patellar resurfacing, (4) placement of optical arrays and trochlear registration, (5) trochlear resection, (6) trialing of implants, (7) removal of the optical array, (8) impaction of final implants, (9) confirmation of appropriate patellar tracking, and (10) closure.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Alternatives: &lt;/strong&gt;Alternatives to patellofemoral arthroplasty include standard nonoperative treatment, bicompartmental arthroplasty, total knee arthroplasty, tibial tubercle osteotomy, partial lateral facetectomy, and arthroscopy&lt;sup&gt;2&lt;/sup&gt;.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Rationale: &lt;/strong&gt;Patellofemoral arthroplasty is indicated in patients with isolated patellofemoral arthritis in whom nonoperative treatment has failed&lt;sup&gt;2&lt;/sup&gt;. Patellofemoral arthroplasty may be superior to total knee arthroplasty because it helps treat pain that affects patient quality of life and activities of daily living while also preserving greater tibiofemoral bone stock&lt;sup&gt;2&lt;/sup&gt;. We recommend against performing patellofemoral arthroplasty in patients with arthritis of the tibiofemoral joints&lt;sup&gt;2&lt;/sup&gt;.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Expected outcomes: &lt;/strong&gt;In properly selected patients, outcomes include improvement in patient pain and function&lt;sup&gt;1&lt;/sup&gt;. One study found that robotic-assisted patellofemoral arthroplasty may result in improved patellar tracking compared with non-robotic-assisted patellofemoral arthroplasty&lt;sup&gt;1&lt;/sup&gt;; however, functional outcomes were found to be similar between procedures, and data for all non-robotic-assisted controls were retrospectively captured&lt;sup&gt;1&lt;/sup&gt;.&lt;/p&gt;&lt;p&gt;&lt;strong&gt;Important tips: &lt;/strong&gt;Confirm isolated patellofemoral arthritis on radiographs and/or magnetic resonance imaging.Review the preoperative plan for appropriate positioning of the trochlear implant.○ Confirm coverage of the trochlear groove.○ Avoid medial overhang.○ Avoid lateral overhang.○ Avoid anterior femoral notching.○ Avoid impingement of the trochlear component into the notch.○ Avoid excessive promine","PeriodicalId":44676,"journal":{"name":"JBJS Essential Surgical Techniques","volume":"14 3","pages":""},"PeriodicalIF":1.0,"publicationDate":"2024-08-22","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11335334/pdf/","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"142037328","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":0,"RegionCategory":"","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 0
Intramedullary Nailing Technique for Proximal Humeral Fractures Using a Straight Antegrade Nail with Locking Tuberosity Fixation. 肱骨近端骨折的髓内钉技术--使用前向直形钉和锁定关节突固定。
IF 1 Q3 SURGERY Pub Date : 2024-08-22 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.23.00040
Brian P Davis, Libby A Mauter, Benjamin W Sears, Armodios M Hatzidakis

Background: Intramedullary straight nail fixation of proximal humeral fractures using a locking mechanism provides advantages compared with plating, including (1) less soft-tissue dissection, which preserves periosteal blood supply and soft-tissue attachments; (2) improved construct stability for comminuted fractures or osteopenic bone; and (3) shorter operative time for simpler fractures.

Description: The patient is placed in the beach-chair position with the head of the bed elevated approximately 45°. The fracture is reduced with use of closed or percutaneous methods, ideally, or with an open approach if required. Temporary fragment fixation with percutaneous Kirschner wires can be utilized. A 1-cm incision is made just anterior to the acromioclavicular joint, overlying the zenith of the humeral head and in line with the diaphysis. A guide-pin is then placed through this incision and is verified to be centrally located and in line with the humeral diaphysis on fluoroscopic views. The guide-pin is advanced into the diaphysis. A cannulated 9-mm reamer is inserted over the guide-pin to create a starting position. The nail is then inserted, with adequate fragment reduction maintained until the proximal nail portion is buried under the subchondral humeral head. The proximal screw trajectory and alignment are checked fluoroscopically. The proximal locking screws are pre-drilled and inserted first using percutaneous drill sleeves through the radiolucent targeting jig. The screw is inserted through the guide and is advanced into the nail until appropriately seated. This process is then repeated for the other proximal screws as necessary. Finally, the distal diaphyseal screws are pre-drilled and inserted in a similar percutaneous fashion using the jig, and the jig is removed. Final orthogonal images are obtained. Copious irrigation of the incisions is performed and they are closed and dressed with a sterile dressing. The operative arm is placed in an abduction sling.

Alternatives: Alternative treatment options for proximal humeral fractures include nonoperative treatment with use of a sling, percutaneous reduction and internal fixation with Kirschner wires, open reduction and internal fixation with a locking plate and screw construct, hemiarthroplasty, and anatomic or reverse total shoulder arthroplasty1.

Rationale: The presently described technique for proximal humeral fracture fixation using a straight, antegrade, locking nail allows for minimal soft-tissue disruption, preserving vascularity and soft-tissue support and achieving angularly stable fixation in often osteopenic bone. The superior and in-line entry point avoids complications of rotator cuff injury and/or subacromial impingement. The proximal locking screws avoid complications of screw penetration or migration. This technique is appropriate for surgically indicated Neer 2-, 3-, and 4-part hum

背景:使用锁定机制对肱骨近端骨折进行髓内直钉固定与钢板固定相比具有以下优势:(1)减少软组织剥离,从而保留骨膜血供和软组织附着;(2)提高粉碎性骨折或骨质疏松骨的结构稳定性;(3)缩短简单骨折的手术时间:患者取沙滩椅体位,床头抬高约 45°。理想情况下使用闭合或经皮方法进行骨折复位,必要时也可使用开放方法。可以使用经皮基氏钢丝临时固定骨折片。在肩锁关节前方、肱骨头天顶上方并与骨骺平行处切开一个 1 厘米的切口。然后通过该切口放置导针,并在透视图上确认导针位于肱骨干的中心位置并与肱骨干一致。将导针推进干骺端。在导针上插入插管式 9 毫米铰刀,以确定起始位置。然后插入钉子,保持足够的碎片缩小,直到近端钉子部分埋入软骨下肱骨头。通过透视检查近端螺钉的轨迹和对齐情况。近端锁定螺钉首先使用经皮钻套管通过放射透视瞄准夹具进行预钻孔和插入。螺钉通过导板插入,并推进到钉内,直至适当就位。然后根据需要对其他近端螺钉重复这一过程。最后,使用夹具以类似的经皮方式预钻并插入远端骺端螺钉,然后移除夹具。最后获得正交图像。对切口进行大量冲洗,关闭切口并用无菌敷料包扎。将手术手臂置于外展吊带中:肱骨近端骨折的替代治疗方案包括使用吊带的非手术治疗、经皮复位并使用 Kirschner 钢丝进行内固定、切开复位并使用锁定钢板和螺钉进行内固定、半关节成形术以及解剖或反向全肩关节成形术1。理由:目前所描述的肱骨近端骨折固定技术使用的是直向、前向锁定钉,可将软组织破坏降到最低,保留血管和软组织支撑,并在通常骨质疏松的骨质中实现角度稳定的固定。上行和直行入路点可避免肩袖损伤和/或肩峰下撞击的并发症。近端锁定螺钉可避免螺钉穿透或移位的并发症。当肱骨头碎片仍然存活时,该技术适用于有手术指征的 Neer 2、3 和 4 部分肱骨骨折,包括老年患者1-5:根据现有的III级和IV级证据,使用该技术后,患者的活动能力有望恢复,并能独立进行日常活动,平均主动抬高132°至136°1,4,6,外旋37°至52°1,4,6,内旋至L31。疼痛评分从术前到术后有明显改善,视觉模拟评分的平均疼痛评分为1.4分3,4,6。患者报告的结果良好至极佳,单次数字评估(SANE)得分率为80%至81%1,6,康斯坦茨平均得分率为71至811分3,4,6,患者满意度高(97%满意或非常满意)4。 研究还显示骨折愈合良好至极佳,无结节移位,未愈合率(0%至5%)1,6和肱骨头坏死率(0%至4%)较低1,4。重要提示:重要提示:导引钉的起始位置必须位于肱骨头的中央,在Grashey前后位切面和肩胛Y切面上位于肱骨头的天顶,在推进导引钉之前必须将其与骨骺对齐。在经皮切口处进行钝性剥离时,可能会损伤腋神经。在钻入任何螺钉之前,都要确认钉子的正确版本,以避免版本不正确和潜在的功能性旋转损失:ABD=外展AP=前胸CT=计算机断层扫描ER=外旋FF=前屈(前抬)IR=内旋SANE=单一评估数值评价SSV=肩部主观值VAS=视觉模拟量表。
{"title":"Intramedullary Nailing Technique for Proximal Humeral Fractures Using a Straight Antegrade Nail with Locking Tuberosity Fixation.","authors":"Brian P Davis, Libby A Mauter, Benjamin W Sears, Armodios M Hatzidakis","doi":"10.2106/JBJS.ST.23.00040","DOIUrl":"10.2106/JBJS.ST.23.00040","url":null,"abstract":"<p><strong>Background: </strong>Intramedullary straight nail fixation of proximal humeral fractures using a locking mechanism provides advantages compared with plating, including (1) less soft-tissue dissection, which preserves periosteal blood supply and soft-tissue attachments; (2) improved construct stability for comminuted fractures or osteopenic bone; and (3) shorter operative time for simpler fractures.</p><p><strong>Description: </strong>The patient is placed in the beach-chair position with the head of the bed elevated approximately 45°. The fracture is reduced with use of closed or percutaneous methods, ideally, or with an open approach if required. Temporary fragment fixation with percutaneous Kirschner wires can be utilized. A 1-cm incision is made just anterior to the acromioclavicular joint, overlying the zenith of the humeral head and in line with the diaphysis. A guide-pin is then placed through this incision and is verified to be centrally located and in line with the humeral diaphysis on fluoroscopic views. The guide-pin is advanced into the diaphysis. A cannulated 9-mm reamer is inserted over the guide-pin to create a starting position. The nail is then inserted, with adequate fragment reduction maintained until the proximal nail portion is buried under the subchondral humeral head. The proximal screw trajectory and alignment are checked fluoroscopically. The proximal locking screws are pre-drilled and inserted first using percutaneous drill sleeves through the radiolucent targeting jig. The screw is inserted through the guide and is advanced into the nail until appropriately seated. This process is then repeated for the other proximal screws as necessary. Finally, the distal diaphyseal screws are pre-drilled and inserted in a similar percutaneous fashion using the jig, and the jig is removed. Final orthogonal images are obtained. Copious irrigation of the incisions is performed and they are closed and dressed with a sterile dressing. The operative arm is placed in an abduction sling.</p><p><strong>Alternatives: </strong>Alternative treatment options for proximal humeral fractures include nonoperative treatment with use of a sling, percutaneous reduction and internal fixation with Kirschner wires, open reduction and internal fixation with a locking plate and screw construct, hemiarthroplasty, and anatomic or reverse total shoulder arthroplasty<sup>1</sup>.</p><p><strong>Rationale: </strong>The presently described technique for proximal humeral fracture fixation using a straight, antegrade, locking nail allows for minimal soft-tissue disruption, preserving vascularity and soft-tissue support and achieving angularly stable fixation in often osteopenic bone. The superior and in-line entry point avoids complications of rotator cuff injury and/or subacromial impingement. The proximal locking screws avoid complications of screw penetration or migration. This technique is appropriate for surgically indicated Neer 2-, 3-, and 4-part hum","PeriodicalId":44676,"journal":{"name":"JBJS Essential Surgical Techniques","volume":"14 3","pages":""},"PeriodicalIF":1.0,"publicationDate":"2024-08-22","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11340924/pdf/","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"142037327","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":0,"RegionCategory":"","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 0
Talocalcaneal Coalition Resection with Local Fat Grafting and Flatfoot Reconstruction. 距骨联合切除术与局部脂肪移植和扁平足重建术
IF 1 Q3 SURGERY Pub Date : 2024-08-06 eCollection Date: 2024-07-01 DOI: 10.2106/JBJS.ST.22.00060
Kira K Tanghe, Shoran Tamura, Jayson Lian, J Nicholas Charla, Melinda S Sharkey, Alexa J Karkenny
<p><strong>Background: </strong>Talocalcaneal (TC) coalitions typically present in the pediatric population with medial hindfoot and/or ankle pain and absent subtalar range of motion. Coalition resection with fat interposition is well described for isolated tarsal coalitions<sup>1,2</sup>; however, patients with concomitant rigid flatfoot may benefit from additional reconstructive procedures. To address this, we employ the surgical technique of TC resection with local fat grafting and flatfoot reconstruction.</p><p><strong>Description: </strong>This procedure is described in 3 steps: (1) gastrocnemius recession and fat harvesting, (2) TC coalition resection with local fat interposition, and (3) peroneus brevis Z-lengthening and calcaneal lateral column lengthening osteotomy with allograft. A 3 to 4-cm posteromedial longitudinal incision is made at the distal extent of the medial head of the gastrocnemius muscle. The gastrocnemius tendon is identified, dissected free of surrounding tissue, and transected. Superficial fat is then harvested from this incision before wound closure. A 7-cm incision is made from the posterior aspect of the medial malleolus to the talonavicular joint. The neurovascular bundle and flexor tendons are dissected carefully from the surrounding tissue as a group and protected while the coalition is completely resected, and bone wax and the local fat are utilized at the resection site to prevent regrowth of the coalition. An approximately 7-cm incision is then made laterally and obliquely following the Langer lines and centered over the lateral calcaneus. The peroneal tendons are released from their sheaths, and the peroneus brevis is Z-lengthened. A calcaneal osteotomy is performed about 1.5 cm proximal to the calcaneocuboid joint and angled to avoid the anterior and middle subtalar facet joints. Two Kirschner wires are inserted retrograde across the calcaneocuboid joint, and the calcaneal osteotomy is opened. A trapezoid-shaped allograft bone wedge is impacted, and the Kirschner wires are advanced across into the calcaneus. The lengthened peroneus brevis tendon is repaired, and the wound is closed in a layered fashion.</p><p><strong>Alternatives: </strong>First-line treatment is nonoperative with orthotics and immobilization. Surgical options include coalition resection with or without calcaneal lengthening osteotomy, arthrodesis, or arthroereisis. Following coalition resection, various grafts can be utilized, including fat autografts, bone wax, or split flexor hallucis longus tendon<sup>3-6</sup>.</p><p><strong>Rationale: </strong>This procedure addresses TC coalition with concomitant rigid flatfoot. Resection alone may increase subtalar motion but does not correct a flatfoot deformity. Historically, surgeons performed arthrodesis or arthroereisis, but these are rarely performed in young patients. In patients with coalitions involving >50% of the posterior facet or preexisting degenerative changes, arthrodesis may be indica
背景:小儿跗骨联合(TC)通常伴有后足内侧和/或踝关节疼痛以及跗骨下活动范围缺失。对于孤立的跗骨联合,采用联合切除加脂肪置入的方法已被广泛应用1,2;然而,伴有硬性扁平足的患者可能会从额外的重建手术中获益。为此,我们采用了跗关节联合切除加局部脂肪移植和扁平足重建的手术技术:该手术分为三个步骤:(描述:该手术分为三个步骤:(1)腓肠肌后缩和脂肪采集;(2)TC联合切除和局部脂肪置入;(3)腓肠肌Z形延长和小腿外侧柱延长截骨与同种异体移植。在腓肠肌内侧头远端做一个 3 至 4 厘米的后内侧纵向切口。确定腓肠肌肌腱,剥离周围组织并横切。然后在伤口闭合前从该切口处抽取浅层脂肪。从内侧踝骨后方到距骨关节做一个 7 厘米的切口。将神经血管束和屈肌腱作为一个整体从周围组织中小心地剥离出来,并在完全切除骨结合部的同时对其进行保护,同时在切除部位使用骨蜡和局部脂肪来防止骨结合部重新生长。然后按照朗格线以小腿外侧为中心,从侧面斜切一个约 7 厘米的切口。将腓肠肌腱从鞘中释放出来,并对腓肠肌进行 Z 形延长。在距小方块关节近端约 1.5 厘米处进行小方块截骨,截骨角度应避开前方和中间的距骨下关节面。将两根 Kirschner 钢丝逆行穿过小方块关节,然后打开小方块截骨。冲击梯形同种异体骨楔,然后将 Kirschner 线穿过小腿骨。修复拉长的腓骨肌腱,分层缝合伤口:一线治疗是使用矫形器和固定器进行非手术治疗。手术治疗包括结合或不结合小腿骨延长截骨术、关节固定术或关节置换术的关节联合切除术。联合切除术后,可使用各种移植物,包括脂肪自体移植物、骨蜡或拇长屈肌腱分段3-6。单纯的切除术可能会增加距骨下运动,但不能矫正扁平足畸形。历史上,外科医生曾进行过关节固定术或关节切除术,但这些手术很少在年轻患者中进行。如果患者的后关节面有超过50%的关节联合或已经存在退行性病变,则可能需要进行关节切开术7:患者的疼痛和功能有望得到改善8-11。先前的研究者报告称,在最终随访时,患者的满意度有所提高,活动范围有所改善,后足的临床和影像学矫正有所改善,美国骨科足踝协会的后足评分也有所提高8,9:小心地将神经血管束从周围软组织中游离出来,以便小心地将其从联合切除区域牵引出来。将光滑的薄板扩张器放入切除区域,轻轻打开距下关节,确认关节联合完全切除。如果没有这一步骤,多达50%的病例在侧柱延长术后会出现小方块半脱位和/或旋转12.为确定异体移植的大小,将薄片扩张器放入截骨部位测量宽度:AOFAS = 美国骨科足踝协会FADI = 足踝残疾指数MRI = 磁共振成像CT = 计算机断层扫描OR = 手术室K-wire = Kirschner wire。
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JBJS Essential Surgical Techniques
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