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This is the clinical evidence summary written for health professionals. It is technical, and it lists the research this page was built from. You do not need to read it to understand your treatment or to make a decision about it.

Overview¶

• Arthroscopic suprapectoral biceps tenodesis using standard portals aims to maximize outcomes and minimize common complications associated with biceps tenodesis [1].
• Good clinical results have been shown with the use of several soft tissue tenodesis techniques for tenodesis of the long head of the biceps [2].
• A single portal technique for proximal biceps tenodesis in the bicipital groove using an all-suture anchor has been demonstrated [3].
• Arthroscopic keyhole biceps tenodesis is hypothesized to be a safe, reproducible, and cost-effective technique [4].
• In situ subpectoral biceps tenodesis with a cortical button offers potential advantages including in situ biceps tendon fixation, creation of a smaller cortical defect, and subcortical attachment of a nonbioreactive device [5].
• A technique for arthroscopicly aided biceps tenodesis has been developed and presented [6].
• The described arthroscopic suprapectoral biceps tenodesis onlay technique is safe, simple, reproducible, and reduces the risk of complications related to open subpectoral tenodesis and arthroscopic intraarticular biceps tendon fixation [7].
• Arthroscopic extra-articular suprapectoral biceps tenodesis is considered an excellent option to address biceps pathologies, especially in active patients [8].
• Arthroscopic biceps tenodesis is a safe and reliable treatment for managing intra-articular biceps tendon pathology [9].
• Tenodesis of the long head of the biceps tendon can give excellent and good results in the long term with an average follow-up of 7 years [10].
• Mini-open biceps tenodesis using an onlay technique with enthesis growth augment offers a reproducible and biologically enhanced alternative that may optimize enthesis healing and reduce the risk of failure [11].
• Revision biceps tenodesis with tibialis anterior allograft tendon augmentation is an effective surgical technique for symptomatic failed biceps tenodesis in a young active patient [12].
• Suprapectoral biceps tenodesis during total shoulder arthroplasty using an onlay technique has good outcomes and low rates of overall and biceps-related complications [13].
• The described proximal biceps tenodesis fixation in double-row rotator cuff repair is simple and cost-effective, with no need for additional anchors [14].
• An all-arthroscopic suprapectoral biceps tenodesis technique utilizing a knotless locking button has been described [15].
• Patients undergoing simultaneous rotator cuff repair and biceps tenodesis demonstrate similar patient-reported and objective outcomes for both lateral-row tenodesis and in-the-groove tenodesis techniques [17].
• An in situ variation of arthroscopic suprapectoral biceps tenodesis using a double loop-and-tack knotless suture anchor provides an option for inclusion in the surgical armamentarium [18].
• A biceps tenodesis technique that can be performed percutaneously using needle arthroscopy under regional anesthesia has been described [19].
• The gripping biceps knot technique provides a safe, efficient, and effective approach to enhancing biomechanical integrity and minimizing repair failures in proximal biceps tenodesis [20].
• Both tenotomy and tenodesis produced good clinical outcomes in the treatment of concurrent long head of biceps tendon lesions and rotator cuff tears [29].
• Available randomized controlled trials comparing suprapectoral and subpectoral approaches to tenodesis lack specific matching of the uniformity of the particular techniques [35].

Anatomy & Pathophysiology¶

Bony Anatomy and Tendon Origin¶

• The long head of the biceps originates from the bicipital tubercle at the superior rim of the glenoid and along the posterior superior rim of the glenoid and labrum [43].
• 40% to 60% of the biceps tendon attaches to the supraglenoid tubercle 5 mm medial to the superior glenoid rim, with the remainder attaching directly to the superior glenoid labrum [41].
• The biceps tendon typically attaches entirely (type I) or predominantly posterior (type II) on the superior labrum [41].
• The labral attachment of the biceps tendon may have equal anterior and posterior contributions (type III) or, less commonly, predominantly anterior (type IV) [41].
• Type I attachment involves all of the labral part attaching to the posterior labrum with none to the anterior labrum [56].
• Type II attachment involves most of the labral contribution attaching to the posterior labrum with a small contribution to the anterior labrum [56].
• Type III attachment involves equal contributions to both the anterior and posterior parts of the labrum [56].
• Type IV attachment involves most of the labral contribution attaching to the anterior labrum with a small contribution to the posterior labrum [56].
• The biceps tendon is an intra-articular but extrasynovial structure within the glenohumeral joint [41].
• The superior labrum inserts on the superior glenoid rim, medial to the articular cartilage margin, through a transitional zone of fibrocartilage [41].
• A normal synovial recess exists between the meniscoid or triangular superior labrum and the articular cartilage extension over the superior glenoid rim [41].
• The glenoid labrum consists of parallel collagen fibers that course around the circumference of the glenoid [41].
• The superior labrum is usually triangular but can have a meniscoid shape, and commonly attaches medial to the articular margin of the glenoid rim [44].
• Anatomic variants in the superior labrum include a sublabral foramen or absence of the superior labrum, often seen together with a cordlike middle glenohumeral ligament (MGHL) [44].
• In a cohort of 73 shoulders, 3.3% had a sublabral foramen, 8.6% had a sublabral foramen with cordlike MGHL (Buford complex), and 1.5% had an absent anterosuperior labrum [44].

Vascularity and Innervation¶

• Vascularity to the glenoid labrum originates from the scapular, circumflex scapular, and posterior circumflex humeral arteries via capsular or periosteal vessels [41].
• The suprascapular artery, the circumflex scapular branch of the subscapular artery, and the posterior humeral circumflex artery provide the labrum’s vascular supply [44].
• The inner portion of the labrum is avascular, and the superior labrum is less vascular compared with the inferior and posterior labrum [44].
• Vascularity of the biceps tendon is provided primarily by the ascending branch of the anterior humeral circumflex artery, which travels within the bicipital groove [41].
• An avascular zone exists at the proximal portion of the biceps tendon, close to the superior glenoid [41].
• Blood is supplied to the long head of the biceps (LHB) tendon from the thoracoacromial and brachial arteries via the osteotendinous and musculotendinous junctions, respectively [44].
• A hypovascular zone found near the tendon origin at the superior glenoid attachment corresponds to where it commonly tears at the LHB pulley near the proximal groove [44].
• The LHB tendon is innervated by thinly myelinated sensory neurons, with most innervation occurring at the LHB origin [44].
• Pathology in the region of the LHB origin can generate pain due to this innervation [44].
• Innervation of the biceps is supplied by branches of the musculocutaneous nerve (C5 and C6) [43].

Bicipital Groove and Pulley Anatomy¶

• The biceps tendon passes through the bicipital groove, or intertubercular groove, between the greater and lesser tuberosities [41].
• Stability of the biceps within the bicipital groove is afforded by the biceps sling, or pulley, consisting of fibers from the subscapularis tendon, supraspinatus tendon, coracohumeral ligament, and superior glenohumeral ligament [41].
• The LHB pulley is a capsuloligamentous complex comprising the superior glenohumeral ligament, the coracohumeral ligament, and fibers from the subscapularis and supraspinatus tendons [44].
• The biceps pulley stabilizes the proximal LHB as the tendon enters the bicipital groove [44].
• The bicipital tendon does not move up and down in the groove; rather, the humerus moves down and up with adduction and abduction relative to the tendon [43].
• The biceps tendon is retained within the groove by a pulley made up of fibers from the coracohumeral and superior glenohumeral ligaments, with some reinforcement from adjacent tendons [43].
• The rotator cuff interval is a triangular region bounded medially by the coracoid process, superiorly by the anterior margin of the supraspinatus, and inferiorly by the superior margin of the subscapularis [45].
• The biceps tendon traverses the rotator cuff interval, where it is held in place by the biceps pulley, before exiting the joint via the bicipital groove [45].
• Zone 1 and zone 2 of the extra-articular bicipital tunnel contain synovial tissue, which may generate pain [44].
• Zone 2 of the extra-articular bicipital tunnel cannot be visualized by arthroscopy from above or with an open approach from below the zone [44].

Biomechanics and Function¶

• The biceps has its main action at the elbow rather than the shoulder and is considered primarily an elbow muscle [43].
• Loss of the long head attachment is manifested mainly as loss of supination strength (20%) with a smaller loss (8%) of elbow flexion strength [43].
• The role of the biceps tendon on the static and dynamic stability of the shoulder is controversial [58].
• Andrews noted a dynamic tensioning of the biceps-labral complex with electric stimulation of the biceps tendon [58].
• From full adduction to full elevation of the arm, the groove moves a distance of up to 2 to 5 cm along the tendon [58].
• Maximal excursion of the humeral head along the tendon results when the shoulder is in a position of maximal external rotation [58].
• Minimal excursion is seen when the shoulder is in a position of maximal internal rotation [58].
• The synovial pouch extends from the shoulder joint, lining the greater part of the intertubercular groove to facilitate excursion along the tendon [58].
• With the arm in full abduction, 1.3 cm of the long head of the biceps tendon (LHBT) lies within the shoulder joint [58].
• When the arm is adducted and externally rotated, the length of tendon within the joint increases to 5 cm [58].
• In external rotation, the long head of the biceps acts as a head depressor at the shoulder to enhance abduction strength [58].
• The biceps can potentially act as a static humeral head depressor, preventing migration of the humeral head into the acromion with contraction of the deltoid [58].
• The function of the biceps tendon as a humeral head depressor increased in the context of a chronic rotator cuff tear [58].
• Both the long and short heads of the biceps function as anterior stabilizers of the glenohumeral joint with the arm in abduction and external rotation [58].
• With increasing instability from sectioning of the inferior glenohumeral ligament, both heads of the biceps have an increased stabilizing function to resist anterior displacement of the humeral head [58].
• Severing the LHBT while both heads were tensed caused significant upward migration of the humeral head [58].
• The long head of the biceps is important in stabilizing the humeral head in the glenoid during powerful elbow flexion and forearm supination [58].
• In shoulders with cuff tears, muscle activity of the long head of the biceps increased in internal rotation at the upper arm elevation to compensate for cuff insufficiency [75].

Pathophysiology and Instability¶

• SLAP tears can be caused by forceful traction to the arm, direct compression loads, and repetitive overhead throwing [46].
• Increased external rotation of the shoulder in the late cocking phase increases torsional force at the LHB root, resulting in a peel-back injury to the posterosuperior labrum [46].
• Injuries can result from repetitive contact of the posterosuperior labrum with the undersurface of the rotator cuff in the late cocking phase, known as internal impingement [46].
• SLAP tears are seen more frequently in the late cocking position, occurring because of an adaptive posterior capsular contracture [46].
• Throwing athletes demonstrate increased shoulder external rotation and decreased internal rotation in abduction, which causes posterosuperior migration of the humeral head in the late cocking phase [46].
• Increased external rotation results in greater torsional loads across the superior labrum from the more posteriorly oriented LHB tendon, causing the labrum and LHB tendon to displace medially over the glenoid rim [46].
• The proximal LHB tendon has been recognized as a source of substantial anterior shoulder pain [46].
• Pathology of the LHB tendon includes tendinitis, tendinopathy, tears, subluxation, entrapment, delamination, and dislocation out of the bicipital groove [46].
• Because of the relatively anterior position of the bicipital groove along the humeral head combined with humeral retroversion, the tendon is exposed to medial instability, which can increase the risk of tendon degeneration [46].
• Variations of bicipital groove morphology can also increase the risk of LHB tendon pathology [46].
• Isolated LHB tendon pathology can occur but frequently is associated with other shoulder pathologies, especially rotator cuff pathology [46].
• Primary LHB tendinitis usually occurs in younger patients who participate in overhead activities such as volleyball and baseball [46].
• With LHB tendon instability, the patient describes a clicking or snapping with overhead motions [46].
• A subscapularis tear is associated with LHB medial instability and a supraspinatus tear is associated with posterolateral instability [46].
• Bicipital instability is usually associated with rotator interval injury or subscapularis tendon injury, or both [47].
• Biceps tendinitis is rarely the primary cause of shoulder pain and is usually secondarily involved as a part of an impingement syndrome or degenerative lesions of the rotator cuff [47].
• A shallow bicipital groove and supratubercular ridge above the lesser tubercle were thought to predispose to biceps tendon pathology [43].
• A shallower bicipital groove may be more likely to expose the long head of the biceps to impingement [43].
• The medial wall of the bicipital groove was higher, with an opening angle of 30 to 40 degrees in the largest fraction of patients [43].
• Subluxation type I involves a partial or complete tear of the rotator interval sling (superior glenohumeral and coracohumeral ligaments) resulting in loss of restraint above the entrance to the groove [63].
• Subluxation type II involves a lesion below the entrance to the bony groove where the tendon slips over the medial rim of the bony groove and rides on the border of the lesser tuberosity [63].
• The causal lesion for subluxation type II is a detachment of the outermost fibres of the subscapularis tendon [63].
• Subluxation type III involves malunion and nonunion of the lesser tuberosity that compromises the medial bony restraint of the long biceps tendon [63].
• Dislocation type I involves extraarticular dislocation combined with a partial tear of the subscapularis tendon [57].
• In dislocation type I, the biceps tendon is displaced over the anterior wall of the groove and slips or glides medially over the torn fibres of the subscapularis tendon [57].
• Dislocation type II involves intraarticular dislocation of the long biceps tendon combined with a complete tear of the subscapularis tendon [57].
• In dislocation type II, the biceps tendon is interposed into the joint space and displaced inferomedially, with entrapment occurring with each internal rotational movement of the humerus [57].
• Dislocation of the long biceps tendon over a completely intact subscapularis tendon is very rare, occurring in only 2 patients (3%) in a series of 70 patients with subluxation and dislocations [57].

Classification¶

• Arthroscopic suprapectoral biceps tenodesis can be performed using standard arthroscopic portals [1].
• Soft tissue tenodesis techniques have demonstrated good clinical results for tenodesis of the long head of the biceps [2].
• A single portal technique exists for proximal biceps tenodesis in the bicipital groove using an all-suture anchor [3].
• An arthroscopicly aided biceps tenodesis technique has been developed [6].
• Arthroscopic suprapectoral biceps tenodesis using an onlay technique is described as safe, simple, reproducible, and reduces risk of complications related to open subpectoral tenodesis and arthroscopic intraarticular biceps tendon fixation [7].
• Proximal biceps tenodesis fixation in double-row rotator cuff repair is simple and cost-effective with no need for additional anchors [14].
• An all-arthroscopic suprapectoral biceps tenodesis technique utilizes a knotless locking button [15].
• All-arthroscopic falciform portal biceps tenodesis allows for improved management of more distal biceps lesions while avoiding potential complications associated with an open approach [16].
• An in situ variation of arthroscopic suprapectoral biceps tenodesis is provided by a technique using a double loop-and-tack knotless suture anchor [18].
• A biceps tenodesis technique can be performed percutaneously using needle arthroscopy under regional anesthesia [19].
• An all-arthroscopic in situ biceps tenodesis technique is performed at the inferior portion of the bicipital groove with the biceps tendon still attached proximally, maintaining the tendon’s in situ length-tension relationship [23].
• Functional results of the open interference screw technique for biceps tenodesis are difficult to elucidate as patient results are typically more related to the rotator cuff repair [25].
• Arthroscopic bicortical biceps anchorage for subpectoral biceps tenodesis underscores the need for further biomechanical and clinical evaluation [26].
• A modified docking configuration into the intraosseous canal decreases stresses at the bone-tendon interface in a cost-effective, implant-free, all-suture modified subpectoral biceps tenodesis technique [28].
• Contemporary literature suggests no clear superiority of one specific biceps tenodesis technique over others [31].
• A network meta-analysis found no significant differences in multiple outcome measures when comparing open versus arthroscopic biceps tenodesis [31].
• A systematic review found no significant difference in Constant, American Shoulder and Elbow Surgeons, or Single Assessment Numeric Evaluation scores between arthroscopic and open biceps tenodesis [31].
• Biomechanical evaluation found no significant differences in construct strength when comparing suprapectoral versus subpectoral fixation locations or between different fixation types including interference screws, suture anchors, and cortical buttons [31].
• Contemporary all-suture anchors appear not only equivalent but superior to more classical metal anchors with respect to fixation strength [31].
• Data suggests that greater tendon migration correlates with lower patient-reported outcomes [31].
• A reproducible systematic technique exists for open repair of teres major and latissimus dorsi tendon ruptures with accompanying biceps tenodesis using cortical suspensory fixation buttons [33].
• An arthroscopic double-cinch double-cerclage technique for proximal biceps tenodesis incorporates a unique construct of circumferential and trans-tendon suture passing at the bicipital groove [34].
• An arthroscopic inlay biceps tenodesis technique uses a tendon-docking anchor [40].
• An arthroscopically assisted mini-open transdeltoid biceps tenodesis technique has been described [51].

Clinical Presentation¶

• Painful long head of the biceps tendon (LHBT) tendinitis may ensue from tears about the rotator interval or with any chronic inflammatory pathology of the glenohumeral joint [71].
• Clinical tests including the O’Brien, Yergason, Speed, and direct palpation tests have limited specificity for diagnosing LHBT pathology [71].
• A history of radiating anterior shoulder pain may inform the examiner of pain generation from the LHBT when combined with clinical tests [71].
• MRI, ultrasonography, and arthroscopic examination are tools used to evaluate biceps pathology [71].
• Arthroscopic examination is limited to the intra-articular LHBT and the proximal groove, missing less common distal biceps groove lesions [71].
• Isolated traumatic tears of the LHBT are generally treated nonsurgically [71].
• Tenodesis for isolated traumatic tears is a rare exception indicated for the dominant arm of a laborer or an individual who cannot tolerate deformity [71].
• Arthroscopic tenotomy is acceptable for less physically demanding individuals who may tolerate deformity [71].
• Tenotomy results in cosmetic deformity (Popeye) about 30% of the time [71].
• Vigorous activity following tenotomy may result in cramping pain of the biceps muscle belly [71].
• Arthroscopic suprapectoral tenodesis may be performed for SLAP tears or in conjunction with rotator cuff repair for a patient who needs full supination strength and endurance [71].
• Open or arthroscopic-assisted subpectoral tenodesis are options if biceps groove pathology is a concern [71].

Investigations¶

Clinical Examination¶

• The "3-pack" examination for biceps-labrum complex disease consists of the active compression test, throwing test, and bicipital tunnel palpation [42].
• The 3-pack tests demonstrated high sensitivity ranging from 73% to 98% for biceps-labrum complex disease [42].
• No single physical examination finding is completely accurate for the diagnosis of a SLAP tear [48].
• A combined physical examination approach aids in the diagnosis of SLAP or long head of biceps pathology [48].
• The proximal long head of biceps tendon is a source of substantial anterior shoulder pain [46].
• Clinical diagnosis of SLAP tears or symptomatic long head of biceps tendinopathy is challenging because findings are similar to other pathologies within the glenohumeral joint [48].

Imaging¶

• Plain radiographs, including scapular Y, AP, and axillary lateral views, are used to assess the glenohumeral joint for abnormalities [65].
• MRI is used to assess the long head of biceps tendon, associated fluid, possible synovitis, bicipital groove morphology, and the presence of bony osteophytes [65].
• Studies have demonstrated poor correlation between MRI and arthroscopic findings regarding long head of biceps pathology [65].
• MRI has poor to moderate sensitivity for inflammation, partial-thickness tendon tears, and tendon ruptures of the long head of biceps [65].
• Magnetic resonance arthrography is more specific and sensitive for long head of biceps pathology and SLAP tears than MRI alone [65].
• On MRA in patients with no pathology, the biceps tendon is surrounded by contrast fluid and resembles a kidney bean [65].
• Both MRI and MRA should be performed in the sagittal oblique and axial planes because long head of biceps subluxation and dislocation are often associated with partial-thickness and full-thickness subscapularis tendon tears [65].
• Ultrasonography is accurate and cost-effective in the diagnosis of long head of biceps dislocation, subluxation, and rupture [65].
• Ultrasonography is not as accurate as other modalities in diagnosing partial-thickness tendon tears of the long head of biceps [65].
• Proton density–weighted sequences with fat suppression have the greatest sensitivity for detecting tendon degeneration [45].
• Tendon caliber change is more specific than signal intensity for detecting tendon degeneration [45].
• Half of biceps tendon partial tears at the groove entrance show an associated caliber change [45].
• Evaluation in all imaging planes aids in the identification of a biceps groove entrance lesion [45].
• MRA has a sensitivity of 82% to 89% and a specificity of 87% to 98% in the evaluation of the biceps pulley [45].
• Diagnostic criteria for biceps pulley evaluation on MRA include nonvisualization or discontinuity of the superior glenohumeral ligament, medial subluxation of the biceps tendon on axial images, biceps tendinopathy, and inferior displacement on oblique sagittal images [45].
• The Fisk view is a radiographic technique used to evaluate the anatomy of the bicipital groove [47].

Treatment¶

Operative Techniques and Fixation¶

• A single portal technique for proximal biceps tenodesis in the bicipital groove using an all-suture anchor has been described [3].
• An arthroscopicly aided biceps tenodesis technique has been developed and presented [6].
• Arthroscopic suprapectoral biceps tenodesis using an onlay technique is safe, simple, reproducible, and reduces the risk of complications related to open subpectoral tenodesis and arthroscopic intraarticular biceps tendon fixation [7].
• Revision biceps tenodesis with tibialis anterior allograft tendon augmentation is an effective surgical technique for the rare case of symptomatic failed biceps tenodesis in a young active patient [12].
• A simplified proximal biceps tenodesis fixation in double-row rotator cuff repair is simple and cost-effective, with no need for additional anchors [14].
• All-arthroscopic falciform portal biceps tenodesis allows for improved management of more distal biceps lesions while avoiding the potential complications associated with an open approach [16].
• An in situ variation of arthroscopic suprapectoral biceps tenodesis using a double loop-and-tack knotless suture anchor provides an option for the surgical armamentarium [18].
• The gripping biceps knot provides a safe, efficient, and effective approach to enhancing biomechanical integrity and minimizing repair failures in proximal biceps tenodesis [20].
• In clinical scenarios where an upper border subscapularis tear is also to be repaired, either a soft tissue or bony technique can be employed that effectively addresses both the subscapularis tear and a symptomatic biceps tendon [21].
• An all-arthroscopic biceps tenodesis technique performed in the in situ position at the inferior portion of the bicipital groove maintains the tendon’s in situ length-tension relationship [23].
• Subpectoral biceps tenodesis using dynamic endobutton fixation in a humeral bone tunnel with interference screw augmentation provides a safe, minimally invasive fixation that may help accelerate return to demanding professional and athletic activities [24].
• Arthroscopic suprapectoral biceps tenodesis below the groove places the bony anchor with minimal soft tissue disruption, minimal risk for major postoperative complications, and comparable biomechanical outcomes to other techniques [27].
• A cost-effective, implant-free, all-suture modified subpectoral biceps tenodesis technique uses a docking configuration into the intraosseous canal that decreases stresses at the bone-tendon interface [28].
• A high-in-the-groove biceps tenodesis using a loop-and-tack technique offers a simple, effective, and reproducible approach to treat long head of biceps tendon and/or superior labral pathology [31].
• Teres major and latissimus dorsi repair with biceps tenodesis utilizing cortical suspensory fixation buttons is a reproducible systematic technique [33].
• An arthroscopic double-cinch double-cerclage technique for proximal biceps tenodesis at the bicipital groove incorporates a unique construct of circumferential and trans-tendon suture passing [34].
• A suprapectoral double-row technique with all-suture anchors for long head of biceps tenodesis aims to maintain inherent length and uniform tension at the bicipital groove [35].
• An all-arthroscopic simple double 360° lasso loop technique for suprapectoral biceps tenodesis requires further clinical and biomechanical studies to evaluate reliability [36].
• Subpectoral biceps tenodesis using an all-suture knotless anchor involves a lateral decubitus position with standard posterior and direct anterior portals [52].
• The BITER device can be a useful tool for both arthroscopic and open shoulder surgery during tendon extraction for biceps tenodesis [53].
• Tenodesis can be performed with a PEEK tenodesis screw, two suture anchors, or a FiberSnare, with comparable resistance to cyclic loading and stronger ultimate pull-out strength for the biotenodesis screw compared to suture anchors [66].
• Long-term results are comparable whether biceps tenodesis is done arthroscopically or through a mini-open approach with a small anterior or subpectoral incision [66].
• For arthroscopic or mini-open biceps tenodesis with screw fixation, the bone tunnel is reamed 10 to 15 mm below the insertion of the supraspinatus lateral to the subscapularis insertion at the level of the transverse humeral ligament [66].
• The depth of insertion for the tenodesis reamer is 20 mm, with an 8-mm reamer used for most men and a 7-mm reamer for most women [66].
• The tenodesis screw is inserted flush with the cortex, and stability is checked by rotating the humerus [66].
• In the rare instance when no pathologic condition exists in the rotator cuff, an anterior approach through the deltopectoral interval is used to identify the long head of the biceps tendon and perform tenodesis [73].
• If a pathologic process of the rotator cuff is present with a subluxing biceps tendon, an anterosuperior approach is used to expose the deltoid, perform acromioplasty, and tenodese the biceps tendon to the humerus with interference or tenodesis screws or suture anchors [73].
• Alternatively, the proximal biceps tendon attachment can be released arthroscopically followed by a tenodesis procedure or a subpectoral technique [73].

Biomechanics and Comparative Outcomes¶

• Available randomized controlled trials comparing suprapectoral and subpectoral tenodesis approaches lack specific matching of the uniformity of the particular techniques [35].
• Functional results of the open interference screw technique are difficult to elucidate as patients’ results are typically more related to the rotator cuff repair [25].

Non-Operative Management¶

• Ultrasound-guided biceps tenotomy combined with corticosteroid injection can be an optimal option for patients who need nontraditional management for rotator cuff tears [30].

Postoperative Care¶

• If only a biceps tenodesis was performed, postoperative management is the same as for arthroscopic acromioplasty [66].
• Strengthening activities related to elbow flexion or forward elevation of the arm with the elbow extended should be restricted until 6 weeks after the biceps tenodesis [66].
• A shoulder immobilizer is worn for 2 weeks, followed by a sling for an additional 2 weeks, after which active use and exercises are begun [73].
• If the rotator cuff was repaired during biceps tenodesis, rehabilitation depends on the size of the tear [73].

Complications¶

• Simultaneous musculocutaneous nerve entrapment and radial nerve traction injury can occur after open subpectoral biceps tenodesis [32].
• A rope-effect mechanism has been demonstrated in cases of simultaneous musculocutaneous nerve entrapment and radial nerve traction injury following open subpectoral biceps tenodesis [32].
• Suprapectoral biceps tenodesis during total shoulder arthroplasty using an onlay technique has low rates of overall and biceps-related complications [13].
• Revision biceps tenodesis with tibialis anterior allograft tendon augmentation is an effective surgical technique for the rare case of symptomatic failed biceps tenodesis [12].
• A single failure was observed in a 65-year-old patient with a long head of biceps rupture present for about 8 years following infrapectoral biceps tenodesis [72].
• The arthroscopic keyhole biceps tenodesis technique is hypothesized to be safe [4].
• The all-arthroscopic suprapectoral biceps tenodesis technique utilizing a knotless locking button is described as a method for the procedure [15].
• The mini-open biceps tenodesis using an onlay technique with enthesis growth augment may reduce the risk of failure [11].
• The arthroscopic suprapectoral biceps tenodesis using standard portals aims to minimize common complications associated with biceps tenodesis [1].
• The arthroscopic suprapectoral biceps tenodesis using an onlay technique reduces the risk of complications related to open subpectoral tenodesis and arthroscopic intraarticular biceps tendon fixation [7].
• The all-arthroscopic falciform portal biceps tenodesis technique avoids the potential complications associated with an open approach [16].
• The arthroscopic suprapectoral biceps tenodesis below the groove technique carries a minimal risk for major postoperative complications [27].
• The gripping biceps knot technique aims to minimize repair failures in proximal biceps tenodesis [20].

Recovery¶

• Biomechanical evaluation found no significant differences in construct strength when comparing suprapectoral versus subpectoral fixation locations [31].
• Biomechanical evaluation found no significant differences in construct strength between different fixation types, including interference screws, suture anchors, and cortical buttons [31].
• Contemporary all-suture anchors appear superior to more classical metal anchors with respect to fixation strength [31].
• Greater tendon migration correlates with lower patient-reported outcomes [31].

Key Evidence¶

• [L5] This technique simplifies the procedure to be performed from standard arthroscopic portals and aims to maximize outcomes and minimize common complications associated with biceps tenodesis. [1] (10.1016/j.eats.2023.04.002)
• [Paper] Good clinical results have been shown with the use of several soft tissue tenodesis techniques for tenodesis of the long head of the biceps. [2] (10.1097/bte.0b013e31816408ee)
• [L5] The presented technique demonstrates a single portal technique for a proximal biceps tenodesis in the bicipital groove using an all-suture anchor. [3] (10.1016/j.eats.2021.11.023)
• [L4] The hypothesis was that the arthroscopic keyhole biceps tenodesis can be a safe, reproducible, and cost-effective technique. [4] (10.1097/bte.0b013e3182116be8)
• [L5] This method has potential advantages over existing subpectoral biceps tenodesis techniques such as in situ biceps tendon fixation, creation of a smaller cortical defect, and subcortical attachment of a nonbioreactive device. [5] (10.1097/bte.0b013e3181a94599)
• [Paper] A technique for an arthroscopicly aided biceps tenodesis has been developed and is presented. [6] (10.1016/s1058-2746(95)80204-5)
• [L5] The technique described is safe, simple, reproducible, and reduces risk of complications related to open subpectoral tenodesis and arthroscopic intraarticular biceps tendon fixation. [7] (10.1016/j.eats.2024.103123)
• [L5] We believe arthroscopic extra-articular suprapectoral biceps tenodesis is an excellent option to address biceps pathologies, especially in active patients. [8] (10.1016/j.eats.2024.102922)
• [L5] Arthroscopic biceps tenodesis is a safe and reliable treatment for managing intra-articular biceps tendon pathology. [9] (10.1016/j.eats.2024.103207)
• [L4] Tenodesis of the long head of the biceps tendon can give excellent and good results in the long term (average follow-up, 7 years). [10] (10.1016/s1058-2746(05)80034-5)
• [L5] This method offers a reproducible and biologically enhanced alternative for proximal biceps tenodesis that may optimize enthesis healing and reduce the risk of failure. [11] (10.1002/atn2.70167)
• [L4] Revision biceps tenodesis with tibialis anterior allograft tendon augmentation is an effective surgical technique for the rare case of symptomatic failed biceps tenodesis in a young active patient. [12] (10.1016/j.eats.2021.12.029)
• [L3] Suprapectoral biceps tenodesis during TSA using an onlay technique has good outcomes and low rates of overall and biceps-related complications. [13] (10.5435/jaaosglobal-d-25-00369)
• [L5] The described proximal biceps tenodesis fixation is simple and cost-effective, with no need for additional anchors. [14] (10.1016/j.eats.2025.103634)
• [L5] We describe an all-arthroscopic suprapectoral biceps tenodesis technique utilizing a knotless locking button. [15] (10.1016/j.eats.2025.103498)
• [Paper] This technique allows for improved management of more distal biceps lesions while avoiding the potential complications associated with an open approach. [16] (10.1016/j.eats.2023.09.017)
• [L3] Patients undergoing simultaneous RCR and BT demonstrate similar patient-reported and objective outcomes for both LR tenodesis and in-the-groove tenodesis techniques. [17] (10.1016/j.jses.2019.09.008)
• [L5] This technique provides an in situ variation of arthroscopic suprapectoral biceps tenodesis for inclusion in the surgical armamentarium. [18] (10.1016/j.eats.2023.04.014)
• [L5] The purpose of this article is to describe a biceps tenodesis technique that can be performed percutaneously using needle arthroscopy under regional anesthesia. [19] (10.1016/j.eats.2024.103414)
• [L5] This technique provides a safe, efficient, and effective approach to enhancing biomechanical integrity and minimizing repair failures in proximal biceps tenodesis. [20] (10.1016/j.eats.2025.103831)
• [L5] In clinical scenarios in which an upper border subscapularis tear is also to be repaired, either a soft tissue or bony technique can be employed that effectively addresses both the subscapularis tear and a symptomatic biceps tendon. [21] (10.1016/j.eats.2025.103724)
• [L5] The authors describe a unique all-arthroscopic biceps tenodesis technique performed in the in situ position at the inferior portion of the bicipital groove with the biceps tendon still attached proximally, thereby maintaining the tendon’s in situ length-tension relationship. [23] (10.1097/bte.0b013e318182c3bf)
• [L5] This novel technique provides a safe, minimally invasive fixation of the long head of the biceps and may help to accelerate return to demanding professional and athletic activities. [24] (10.1097/bte.0b013e3182270fab)
• [L4] Functional results of this technique are difficult to elucidate, as the patients’ results are typically more related to the rotator cuff repair. [25] (10.1097/00132589-200312000-00006)
• [L5] These considerations underscore the need for further biomechanical and clinical evaluation. [26] (10.1002/atn2.70089)
• [L5] The technique places the bony anchor for the long head of the biceps tendon below the bicipital groove with minimal soft tissue disruption, minimal risk for major postoperative complications, and comparable biomechanical outcomes to other techniques. [27] (10.1016/j.eats.2025.103707)
• [L5] The modified docking configuration into the intraosseous canal decreases stresses at the bone-tendon interface. [28] (10.1016/j.eats.2023.11.001)
• [L1] Both tenotomy and tenodesis produced good clinical outcomes in the treatment of concurrent LHBT lesions and rotator cuff tears. [29] (10.1097/bte.0000000000000142)
• [L4] Ultrasound-guided biceps tenotomy combined with corticosteroid injection can be an optimal option for patients who need nontraditional management for rotator cuff tears. [30] (10.1016/j.eats.2023.09.022)
• [L5] [31] (10.1002/atn2.70105)
• [L5] [32] (10.1016/j.xrrt.2026.100806)
• [L5] The authors present a reproducible systematic technique for open repair of teres major and latissimus dorsi tendon ruptures with accompanying biceps tenodesis using cortical suspensory fixation buttons. [33] (10.1016/j.eats.2022.10.017)
• [L5] This technical note introduces an arthroscopic technique for proximal biceps tenodesis at the bicipital groove that incorporates a unique construct of circumferential and trans-tendon suture passing. [34] (10.1016/j.eats.2025.103464)
• [L5] The available randomized controlled trials comparing the approaches to tenodesis, namely suprapectoral and subpectoral, lack specific matching of the uniformity of the particular techniques. [35] (10.1016/j.eats.2024.103130)
• [L5] Further clinical and biomechanical studies are needed to evaluate the reliability of this tenodesis technique. [36] (10.1016/j.eats.2023.02.008)
• [Paper] [40] (10.1016/j.eats.2024.103284)
• [L4] [51] (10.1097/bte.0b013e318297c451)
• [L5] [52] (10.1016/j.eats.2023.02.030)
• [L5] The BITER can be a useful device for both arthroscopic and open shoulder surgery. [53] (10.1016/j.eats.2023.09.020)
• [L4] [72] (10.1097/bte.0b013e3182443d1d)
• [L4] We suggest that in the shoulders with cuff tears, muscle activity of the LHB increased in internal rotation at the upper arm elevation to compensate the cuff insufficiency. [75] (10.1016/s1058-2746(96)80562-3)

References¶

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[8] Arthroscopic Suprapectoral Retensioning Biceps Tenodesis. Arthroscopy Techniques. 2024. DOI: 10.1016/j.eats.2024.102922

[9] Arthroscopic In Situ Biceps Tenodesis Using a Double Loop‐and‐Tack Knotless Suture Anchor. Arthroscopy Techniques. 2024. DOI: 10.1016/j.eats.2024.103207

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[11] Mini‐Open Biceps Tenodesis Using an Onlay Technique With Enthesis Growth Augment. Arthroscopy Techniques. 2026. DOI: 10.1002/atn2.70167

[12] Revision Open Subpectoral Biceps Tenodesis With Allograft Tendon Reconstruction for Symptomatic Failed Biceps Tenodesis. Arthroscopy Techniques. 2022. DOI: 10.1016/j.eats.2021.12.029

[13] Suprapectoral Onlay Biceps Tenodesis With Metal Button or Soft-Body Anchor Is Safe and Effective During Total Shoulder Arthroplasty. JAAOS: Global Research and Reviews. 2026. DOI: 10.5435/jaaosglobal-d-25-00369

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[25] Open Biceps Tenodesis: The Interference Screw Technique. Techniques in Shoulder and Elbow Surgery. 2003. DOI: 10.1097/00132589-200312000-00006

[26] Arthroscopic Bicortical Biceps Anchorage: An Arthroscopic‐Assisted Technique for Subpectoral Biceps Tenodesis. Arthroscopy Techniques. 2026. DOI: 10.1002/atn2.70089

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