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History and Future Direction of Superior Capsule Reconstruction for Irreparable Rotator Cuff Tears

Vol 3 | Issue 2 |  July-Dec 2018 | Page 12-15 | Teruhisa Mihata.


Authors: Teruhisa Mihata [1,2,3].

[1] Department of Orthopedic Surgery, Osaka Medical College, Takatsuki, Osaka, Japan
[2] Orthopaedic Biomechanics Laboratory, Congress Medical Foundation, Pasadena, California, USA
[3] Katsuragi Hospital, Kishiwada, Osaka, Japan

Address of Correspondence
Dr. TeruhisaMihata,
Department of Orthopedic Surgery, Osaka Medical College, 2-7 Daigaku-machi, Takatsuki, Osaka 569-8686, Japan
Email: tmihata@yahoo.co.jp, tmihata@osaka-med.ac.jp


Abstract

Lesions of the superior shoulder capsule had been a neglected entity before I reported my technique for superior capsule reconstruction (SCR).I had noticed that patients with irreparable rotator cuff tears always had irreparable defects of the superior shoulder capsule as well as the rotator cuff tendons, because the superior shoulder capsule is attached to the undersurface of these tendons. Therefore, I hypothesized that reconstruction of the superior shoulder capsule might be useful to prevent superior migration of the humeral head and subacromial impingement in irreparable rotator cuff tears. To prove my hypothesis, our group performed a cadaveric biomechanical study in 2005. This biomechanical study showed that SCR completely restored superior stability of the glenohumeral joint, whereas patch grafting to the supraspinatus tendon (conventional patch graft surgery) only partially restored superior translation to the intact level. Consequently, in 2007,we started arthroscopic SCR for patients with irreparable rotator cuff tears. From our 10 years of experience with SCR, we conclude that arthroscopic SCR restores superior glenohumeral stability and improves shoulder function in irreparable rotator cuff tears.
Keywords: Irreparable, Reconstruction, Rotator Cuff, Shoulder, Superior capsule


References

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2. Oh JH, Kim SH, Kang JY, Oh CH, Gong HS. Effect of age on functional and structural outcome after rotator cuff repair. Am J Sports Med 2010;38:672-678.
3. Goutallier D, Postel JM, Bernageau J, Lavau L, Voisin MC. Fatty muscle degeneration in cuff ruptures. Pre- and postoperative evaluation by CT scan. Clin Orthop Relat Res 1994;78-83.
4. Melis B, Wall B, Walch G. Natural history of infraspinatus fatty infiltration in rotator cuff tears. J Shoulder Elbow Surg 2010;19:757-763.
5. Melis B, Nemoz C, Walch G. Muscle fatty infiltration in rotator cuff tears: descriptive analysis of 1688 cases. Orthop Traumatol Surg Res 2009;95:319-324.
6. Oh JH, Kim SH, Choi JA, Kim Y, Oh CH. Reliability of the grading system for fatty degeneration of rotator cuff muscles. Clin Orthop Relat Res 2010;468:1558-1564.
7. Burkhart SS. Arthroscopic debridement and decompression for selected rotator cuff tears. Clinical results, pathomechanics, and patient selection based on biomechanical parameters. Orthop Clin North Am 1993;24:111-123.
8. Rockwood CA, Jr., Williams GR, Jr., Burkhead WZ, Jr. Debridement of degenerative, irreparable lesions of the rotator cuff. J Bone Joint Surg Am 1995;77:857-866.
9. Burkhart SS. Fluoroscopic comparison of kinematic patterns in massive rotator cuff tears. A suspension bridge model. Clin Orthop Relat Res 1992;144-152.
10. Burkhart SS, Nottage WM, Ogilvie-Harris DJ, Kohn HS, Pachelli A. Partial repair of irreparable rotator cuff tears. Arthroscopy 1994;10:363-370.
11. Duralde XA, Bair B. Massive rotator cuff tears: the result of partial rotator cuff repair. J Shoulder Elbow Surg 2005;14:121-127.
12. Cofield RH. Subscapular muscle transposition for repair of chronic rotator cuff tears. Surg Gynecol Obstet 1982;154:667-672.
13. Karas SE, Giachello TL. Subscapularis transfer for reconstruction of massive tears of the rotator cuff. J Bone Joint Surg Am 1996;78:239-245.
14. Celli L, Rovesta C, Marongiu MC, Manzieri S. Transplantation of teres major muscle for infraspinatus muscle in irreparable rotator cuff tears. J Shoulder Elbow Surg 1998;7:485-490.
15. Debeyre J, Patie D, Elmelik E. Repair of Ruptures of the Rotator Cuff of the Shoulder. J Bone Joint Surg Br 1965;47:36-42.
16. Dierickx C, Vanhoof H. Massive rotator cuff tears treated by a deltoid muscular inlay flap. Acta Orthop Belg 1994;60:94-100.
17. Gerber C. Latissimus dorsi transfer for the treatment of irreparable tears of the rotator cuff. Clin Orthop Relat Res 1992;152-160.
18. Warner JJ, Parsons IMt. Latissimus dorsi tendon transfer: a comparative analysis of primary and salvage reconstruction of massive, irreparable rotator cuff tears. J Shoulder Elbow Surg 2001;10:514-521.
19. Gerber C, Maquieira G, Espinosa N. Latissimus dorsi transfer for the treatment of irreparable rotator cuff tears. J Bone Joint Surg Am 2006;88:113-120.
20. Jost B, Puskas GJ, Lustenberger A, Gerber C. Outcome of pectoralis major transfer for the treatment of irreparable subscapularis tears. J Bone Joint Surg Am 2003;85-A:1944-1951.
21. Nasca RJ. The use of freeze-dried allografts in the management of global rotator cuff tears. Clin Orthop Relat Res 1988;218-226.
22. Neviaser JS, Neviaser RJ, Neviaser TJ. The repair of chronic massive ruptures of the rotator cuff of the shoulder by use of a freeze-dried rotator cuff. J Bone Joint Surg Am 1978;60:681-684.
23. Heikel HV. Rupture of the rotator cuff of the shoulder. Experiences of surgical treatment. Acta Orthop Scand 1968;39:477-492.
24. Ozaki J, Fujimoto S, Masuhara K, Tamai S, Yoshimoto S. Reconstruction of chronic massive rotator cuff tears with synthetic materials. Clin Orthop Relat Res 1986;173-183.
25. Post M. Rotator cuff repair with carbon filament. A preliminary report of five cases. Clin Orthop Relat Res 1985;154-158.
26. Klein SM, Dunning P, Mulieri P, Pupello D, Downes K, Frankle MA. Effects of acquired glenoid bone defects on surgical technique and clinical outcomes in reverse shoulder arthroplasty. J Bone Joint Surg Am 2010;92:1144-1154.
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29. Tan SHS, Huh LBP, Krishna L. Outcomes of Anterior Cruciate Ligament Reconstruction in Females Using Patellar-Tendon-Bone versus Hamstring Autografts: A Systematic Review and Meta-Analysis. J Knee Surg 2018.
30. Chin BZ, Wee IJY, Syn NL, Krishna L. Arthroscopic Anterior Cruciate Ligament Reconstruction: A Meta-Analysis Comparing Semitendinosus Alone and Semitendinosus with Gracilis Tendon Autografts. J Knee Surg 2018.
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How to Cite this article: Mihata T. History and Future Direction of Superior Capsule Reconstruction for Irreparable Rotator Cuff Tears. Journal of Clinical Orthopaedics July-Dec 2018; 3(2):12-15.

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The Anterolateral Complex of the Knee: A Comprehensive Review of Its Structure and Function

Vol 1 | Issue 1 |  July – Dec 2016 | Page 5-9 | Jeremy M Burnham, Elmar Herbst, Marcio B V Albers, Thierry Pauyo,
Freddie H Fu


Authors: Jeremy M Burnham [1], Elmar Herbst [1], Marcio B V Albers [1], Thierry Pauyo [1],
Freddie H Fu[1].

[1] Orthopedic Oncology Services, Department of Surgical Oncology, Tata Memorial Hospital, Mumbai.

Address of Correspondence
Dr. Ashish Gulia
Associate Professor, Orthopedic oncology, Department of Surgical Oncology, Tata Memorial Hospital, Mumbai.
Email: aashishgulia@gmail.com


Abstract

Introduction: Persistent rotatory instability is often described in association with ACL reconstruction. Recent studies have drawn attention to the lateral sided knee structures as possible contributors to this instability. However, varying terminology and research methodology has made the results of these recent studies difficult to interpret. It is crucial that surgeons have a thorough understanding of anterolateral knee anatomy and function prior to proposing extra-articular treatment options. The most important factor in restoring rotatory knee stability is to perform an individualized, anatomic ACL reconstruction that recreates the native anatomy of the torn ACL. This will restore native knee stability in the vast majority of cases. However, a subset of patients will have some degree of anterolateral knee injury that may need to be addressed. At this time, the proper indications for surgery and the best extra-articular procedure are not known. Therefore, it is paramount that future research establishes consistent terminology and research methodology so that scientific understanding of this incredibly intricate anatomic complex can progress.
Key Words: Anterior cruciate ligament, reconstruction, Anterolateral Complex of the Knee.


Introduction

Despite multiple technological advances in the surgical technique, graft options, and postoperative rehabilitation of anterior cruciate ligament (ACL) reconstruction, some patients continue to have persistent rotatory instability [1-3]. The reasons for this rotatory instability are multifactorial, and contributing factors can include untreated meniscal tears, under-appreciated menisco-capsular separations, bony morphologic characteristics, poor tunnel positioning, improper graft choice, technical mistakes during ACL reconstruction, generalized ligamentous laxity, and injuries to the anterolateral side of the knee [4-8].  Recent studies have suggested that the anterolateral knee structures may play an important role in the rotatory stability of the knee [1, 9, 10]. In fact, some studies have reported the discovery of a new ligament, termed the anterolateral ligament (ALL) [11-13]. Other studies have suggested anterolateral rotatory instability is a function of multiple anterolateral knee structures, termed the anterolateral complex (ALC), as opposed to a single ligamentous structure [14, 15]. In fact, anterolateral rotatory instability and the anterolateral knee structures have become quite a controversial topic. Inconsistent terminology, varying definitions of the origin and insertion of the ALL, differing specimen preparation methods and dissection methods, the complexity of the lateral sided knee anatomy, and variable interpretation of imaging findings have all contributed to the confusion surrounding the anterolateral knee structures. Consistent terminology and reporting will be crucial to advancing the knowledge and understanding of the anterolateral knee structures in the future. Contrary to popular belief, investigations and descriptions of the anterolateral knee structures are not a recent phenomenon. Several authors described a mid-third capsular thickening in the 1980s [16-20]. Furthermore, it appears that many modern descriptions of the ALL are likely referring to either the capsulo-osseous layer of the iliotibial band (ITB)[12, 21, 22], the mid-third capsular ligament[23-26], or both[13]. It is often difficult to compare between studies as findings from dissections performed using embalmed specimens seem to differ from those using fresh-frozen specimens.

Anatomy

The anatomy of the anterolateral knee is quite complex. However, the function of these structures becomes more obvious with greater understanding of the native anatomy. The anterolateral knee can be divided into three general layers and four main structure groups (superficial ITB, deep ITB, capsulo-osseous layer of the ITB, and the anterolateral capsule). The superficial ITB is located in Layer 1.[27] It inserts distally on Gerdy’s tubercle and just posterior to Gerdy’s tubercle. It contains fibers running to the lateral aspect of the patellar and patellar tendon, known as the iliopatellar band (Figure 1).

figure-1

Posteriorly, the superficial ITB connects with the fascia of the biceps femoris. It attaches to the lateral intermuscular septum as well [16]. Layer 2 consists of the posterior aspect of the superficial ITB as well as the deep ITB. This layer attaches to the lateral femoral epicondyle and inserts just posterior to Gerdy´s tubercle. Proximally, the Kaplan fibers are part of this layer (Figure 2) [28].

figure-2

These fibers connect the superficial ITB with the distal femoral metaphysis and condyle. They also run near the superior genicular artery and its branches [17]. The capsulo-osseous layer of the ITB is continuous with the lateral gastrocnemius muscle fascia.[16] The capsulo-osseous layer merges with the rest of the ITB distally. It then inserts on an area halfway between the posterior aspect of the fibular head and the tip of Gerdy´s tubercle, termed the mid-lateral tibial tubercle. Finally, Layer 3 contains the anterolateral capsule.[27] The capsule consists of a superficial and deep layer, both of which merge into one layer more anteriorly. The deep layer passes deep to the LCL and the superficial layer passes over it superficially. It is thought that the thickening at the confluence of the two layers may be the mid third capsular ligament as described by Hughston et al.[18, 19] to be present in 35% of dissected specimens. Regarding the presence of a discrete identifiable ALL, study results have varied widely.[29] Some studies report that there is an ALL present in nearly 100% of the specimens, while others have found it to be present in a third of specimens. [12, 13, 15, 23, 24, 30] One study examined pediatric cadaver knees reported that the ALL was present in 12.5% of the specimens.[31] Some studies may have enhanced the presence of the ligament by positioning the knee structures such that the capsule was tensioned in the shape of a ligament, and then by removing the surrounding tissue.[32, 33] The anatomic location of the proposed ALL differs among studies as well. Some studies list the femoral origin posterior to the lateral collateral ligament (LCL),[24, 33] some describe it near the LCL origin,[23, 24] and some describe it as originating anterior and/or distal to the LCL origin.[13, 23, 32, 34] Descriptions of the distal insertion likewise vary. While most studies have reported the distal insertion to be located mid-way between Gerdy’s tubercle and the fibular head,[13, 23, 24, 34] others have described it as being located slightly more anterior.[11, 25] Further disagreements include the relationship of the ALL with the capsule, the meniscus, and the overall orientation of the ALL fibers.[11-15, 22, 24-26, 32-36] Regardless, it is obvious that the lack of standardization in anatomical descriptions as well as varying specimen fixation methods, dissection methods, and cadaver ages has led to discrepant descriptions and findings regarding the presence and anatomy of the anterolateral structures. As such, it is recommended that the anterolateral knee structures consisting of the superficial and deep ITB (along with the Kaplan fibers and capsulo-osseous layer) and the anterolateral capsule be referred to as the anterolateral complex (ALC).

Biomechanics

Numerous studies have investigated the biomechanics of anterolateral knee structures. While many of these studies have investigated the relationship between the ALL and rotatory instability, results have been inconsistent. Furthermore, the actual structures considered as the ALL differ and this heterogeneity has made it difficult to interpret the findings [26, 37-42]. Although the ITB is known to confer significant rotatory stability to the knee[36] many of the studies have investigated the ALL with the IT band sectioned. On the other hand, when injury to the ALL were investigated with preserved ITB function, no increase in rotatory instability was observed.[43] Of the studies that did report greater rotatory knee instability with sectioning of the ALL, many were performed at high flexion angles which are not representative of knee position during typical ACL injury [39, 40, 44].  Importantly, the ITB has been found to be the most robust contributor to anterolateral knee stability through all angles of knee flexion.[36] The part of the superficial and deep ITB that is located between the Kaplan fibers proximally, and the insertion at the proximal tibia distally, form a discreet functional unit which contributes greatly to knee stability.[17, 20] In fact, tightening of this structure has been reported with knee flexion, as well as an increase in length.[17, 20] Robotic studies have shown that this portion of the ITB is responsible for 70% of the restraint to internal rotation restraint in ACL intact and deficient knees [36]. Some studies have reported that suggested injuries to the anterolateral capsular structures are associated with greater rotatory instability.[9, 45] In fact, increased lateral compartment translation during pivot shift (utilizing quantitative pivot shift testing) was associated with MRI-visible anterolateral capsule injury[9]. When interpreting these results, it should be noted that identification of individual anterolateral structures can be difficult via MRI, and the ALC should be considered as a whole when evaluating for injury when using this imaging modality.

Management

Various procedures have been proposed to address anterolateral complex injuries. However, it should be noted that an anatomic ACL reconstruction, individualized for each patient, is the most important step in restoring rotatory knee stability in this patient population. In addition, other injuries such as meniscal tears, should be treated properly to help restore stability. In fact, it is not currently known which patients may benefit from extra-articular anterolateral procedures. One study reported good outcomes after a combined “anatomic ALL” reconstruction combined with ACL reconstruction. Interestingly, there was no control group to compare to, and follow-up time was less than ideal.[46] Further biomechanical studies have suggested that extra-articular procedures may play a role in patients with ALC/ALL injuries. However, extra-articular procedures carry inherent risks, including over-constraint of the lateral compartment, ultimately leading to arthritis, and wound problems. Interestingly, many of these procedures recommend the use of the ITB as an extra-articular graft. It should be noted that the ITB utilized as graft has been shown to be stiffer than many of the anterolateral structures, and may contribute to the over-constraint often described with these procedures. Furthermore, removal of a portion of the ITB to utilize in its non-native position may lead to worsening anterolateral instability. In addition, it is not known if anterolateral knee injuries will heal on their own. As such, surgeons should use caution before performing additional extra-articular procedures for anterolateral complex injuries in the setting of ACL reconstruction.


Conclusion

Persistent rotatory instability is a well-known finding associated with ACL reconstruction. While proper reconstruction of the ACL is requisite to achieving optimal outcomes, concomitant injuries must be considered, especially in the setting of significant rotatory instability. The anterolateral structures play an important role in this stability, and should be assessed for injury. However, the indications for extra-articular tenodeses and reconstructions are currently unknown. Unindicated anterolateral knee procedures can be associated with significant negative outcomes, and their use must be carefully considered. Future studies on anterolateral knee should use consistent terminology and sound research methodology. In fact, it is recommended to refer to the anterolateral knee structures as the anterolateral complex (ALC) to properly refer to numerous structures which make up a synergistic functional unit.


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How to Cite this article: Burnham JM, Herbst E, Albers M,  Pauyo T, Fu FH. The Anterolateral Complex of the Knee: A Comprehensive Review of Its Structure and Function. Journal of Clinical Orthopaedics July – Dec 2016; 1(1):5-9.

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