Rehabilitation Guidelines for Patellar Tendon and Quadriceps Tendon Repair
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The Influence of Altered Lower-Extremity Kinematics on Patellofemoral Joint Dysfunction: a Theoretical Perspective
The Influence of Altered Lower-Extremity Kinematics on Patellofemoral Joint Dysfunction: A Theoretical Perspective Christopher M. Powers, PT, PhD 1 Although patellofemoral pain (PFP) is recognized as being one of the most common disorders of It has been recognized by sev- the lower extremity, treatment guidelines and underlying rationales remain vague and controver- eral authors that the patel- sial. The premise behind most treatment approaches is that PFP is the result of abnormal patellar lofemoral joint may be influenced CLINICAL COMMENTARY tracking and/or patellar malalignment. Given as such, interventions typically focus on the joint by the segmental interactions of itself and have traditionally included strengthening the vastus medialis oblique, taping, bracing, the lower extremity.6,7,21,27,34,45 Ab- soft tissue mobilization, and patellar mobilization. More recently, it has been recognized that the normal motion(s) of the tibia and patellofemoral joint and, therefore, PFP may be influenced by the interaction of the segments and femur in the transverse and frontal joints of the lower extremity. In particular, abnormal motion of the tibia and femur in the transverse and frontal planes may have an effect on patellofemoral joint mechanics. With this in planes are believed to have an mind, interventions aimed at controlling hip and pelvic motion (proximal stability) and ankle/foot effect on patellofemoral joint me- motion (distal stability) may be warranted and should be considered when treating persons with chanics and therefore PFP. An un- patellofemoral joint dysfunction. The purpose of this paper is to provide a biomechanical derstanding of how lower- overview of how altered lower-extremity mechanics may influence the patellofemoral joint. -
Acellular Dermal Graft Augmentation in Quadriceps Tendon Rupture Repair
INNOVATIONS IN PRACTICE Acellular dermal graft augmentation in quadriceps tendon rupture repair Ross M. Wilkins INTRODUCTION cific pain and swelling of the knee indicative of other more nstability of the knee from failure of the extensor frequent soft-tissue maladies such as ligament rupture, mechanism is a debilitating problem. Extensor mechan- partial tears, and the presence of intact medial and lateral 19 ism failure frequently is the result of patellar tendon patellar retinacula and iliotibial band. The purpose of this I retrospective review was to describe a ‘‘stent’’ augmentation rupture, quadriceps tendon rupture, patellar fracture or avulsion of the patellar tendon.1,2 Such failures have method for rupture of the quadriceps tendon and evaluate been linked to underlying pathologies such as diabetes the effects of quadriceps tendon augmentation in both the mellitus, gout, corticosteroid use, autoimmune inflamma- presence and absence of a TKA. tory diseases, hyperthyroidism, obesity and end-stage renal disease.3--8 Often, the treatment of this problem is com- MATERIALS AND METHODS pounded by the presence of a total knee arthroplasty (TKA) Eight knees in seven patients were treated using acellular or the need for a TKA.7 Depending on the root cause of the human dermal matrix, (AHDM; GRAFT JACKETs Matrix, instability, there are a variety of ways to treat this soft-tissue Wright Medical Technology, Arlington TN) for chronic insufficiency. Historically, problems of the extensor me- quadriceps tendon rupture at a single institution. Four chanism have been operatively treated using primary repair, of these patients presented with a TKA, with one patient tendon autografts, fascia, extensor mechanism allografts, having had bilateral TKA. -
A Cadaver Research
Journal of Arthroscopy and Joint Surgery 6 (2019) 114e116 Contents lists available at ScienceDirect Journal of Arthroscopy and Joint Surgery journal homepage: www.elsevier.com/locate/jajs Tensile strength comparison between hamstring tendon, patellar tendon, quadriceps tendon and peroneus longus tendon: A cadaver research * Krisna Y. Phatama a, , Mohamad Hidayat a, Edi Mustamsir a, Ananto Satya Pradana a, Brian Dhananjaya b, Surya Iman Muhammad b a Orthopaedic and Traumatology Department, Lower Extremity and Adult Reconstruction Division, Saiful Anwar Hospital, Jalan Jaksa Agung Suprapto No.2, Klojen, Kota Malang, Jawa Timur, 65112, Indonesia b Orthopaedic and Traumatology Department, Saiful Anwar Hospital, Jalan Jaksa Agung Suprapto No. 2, Klojen, Kota Malang, Jawa Timur, 65112, Indonesia article info abstract Article history: Knee ligament injury is a frequent occurrence. Ligament reconstruction using tendon graft is the best Received 6 December 2018 therapy recommendation in the case of severe knee ligament injury. Tendon graft that is oftenly used are Accepted 15 February 2019 hamstring tendon, patellar tendon (BPTB), quadriceps tendon and peroneus longus tendon have been Available online 19 February 2019 proposed as tendon graft donor. Biomechanically, tensile strength from tendon graft is the main factor that greatly contributes to the success of ligament reconstruction procedure. Numerous researches have Keywords: been done to calculate tensile strengths of hamstring and patellar tendon, but there has not been a Ligament reconstruction research done yet on the comparison of the tensile strengths of peroneus longus tendon, hamstring, Tendon graft Tensile strength patellar tendon and quadriceps tendon. This research will strive to record the tensile strengths of per- oneus longus tendon, hamstring, patellar tendon and quadriceps tendon as well as their comparison. -
Closure of Patellar Tendon Defect in ACL Reconstruction
Systematic Review Closure of Patellar Tendon Defect in Anterior Cruciate Ligament Reconstruction With BoneePatellar TendoneBone Autograft: Systematic Review of Randomized Controlled Trials Rachel M. Frank, M.D., Randy Mascarenhas, M.D., Marc Haro, M.D., Nikhil N. Verma, M.D., Brian J. Cole, M.D., M.B.A., Charles A. Bush-Joseph, M.D., and Bernard R. Bach Jr., M.D. Purpose: This study aimed to systematically review the highest level of evidence on anterior cruciate ligament (ACL) reconstruction with boneepatellar tendonebone (BPTB) autografts with patellar tendon defect closure versus no closure after surgery. Methods: We performed a systematic review of multiple medical databases using Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines. Level I and Level II randomized controlled trials comparing patellar tendon defect closure to no closure during ACL reconstruction with BPTB autografts were included. Two inde- pendent reviewers analyzed all studies. Descriptive statistics were calculated. Study methodological quality was analyzed using the Modified Coleman Methodology Score (MCMS) and Jadad scale. Results: Four studies with a combined 221 patients (154 male patients and 67 female patients) with an average age of 26.6 Æ 2.4 years (range, 17 to 54 years) were included. All studies randomized patients before surgery into ACLR with BPTB autografts either with patellar tendon defect closure or without closure. There were no differences in clinical outcomes (Lysholm score, Tegner scale, International Knee Documentation Committee [IKDC] classification, modified Larsen score, and Lauridsen rating) between groups. There were no significant differences in knee pain between groups. All studies reported imaging findings of the patellar tendon defect, with 2 studies showing no difference in appearance between groups, one study showing excessive scar formation with defect repair, and one study showing improved restoration of normal tendon appearance with defect repair. -
Physical Examination of the Knee: Meniscus, Cartilage, and Patellofemoral Conditions
Review Article Physical Examination of the Knee: Meniscus, Cartilage, and Patellofemoral Conditions Abstract Robert D. Bronstein, MD The knee is one of the most commonly injured joints in the body. Its Joseph C. Schaffer, MD superficial anatomy enables diagnosis of the injury through a thorough history and physical examination. Examination techniques for the knee described decades ago are still useful, as are more recently developed tests. Proper use of these techniques requires understanding of the anatomy and biomechanical principles of the knee as well as the pathophysiology of the injuries, including tears to the menisci and extensor mechanism, patellofemoral conditions, and osteochondritis dissecans. Nevertheless, the clinical validity and accuracy of the diagnostic tests vary. Advanced imaging studies may be useful adjuncts. ecause of its location and func- We have previously described the Btion, the knee is one of the most ligamentous examination.1 frequently injured joints in the body. Diagnosis of an injury General Examination requires a thorough knowledge of the anatomy and biomechanics of When a patient reports a knee injury, the joint. Many of the tests cur- the clinician should first obtain a rently used to help diagnose the good history. The location of the pain injured structures of the knee and any mechanical symptoms were developed before the avail- should be elicited, along with the ability of advanced imaging. How- mechanism of injury. From these From the Division of Sports Medicine, ever, several of these examinations descriptions, the structures that may Department of Orthopaedics, are as accurate or, in some cases, University of Rochester School of have been stressed or compressed can Medicine and Dentistry, Rochester, more accurate than state-of-the-art be determined and a differential NY. -
Patellar Tendinopathy: Some Aspects of Basic Science and Clinical Management
346 Br J Sports Med 1998;32:346–355 Br J Sports Med: first published as 10.1136/bjsm.32.4.346 on 1 December 1998. Downloaded from OCCASIONAL PIECE Patellar tendinopathy: some aspects of basic science and clinical management School of Human Kinetics, University of K M Khan, N MaVulli, B D Coleman, J L Cook, J E Taunton British Columbia, Vancouver, Canada K M Khan J E Taunton Tendon injuries account for a substantial tendinopathy, and the remainder to tendon or Victorian Institute of proportion of overuse injuries in sports.1–6 tendon structure in general. Sport Tendon Study Despite the morbidity associated with patellar Group, Melbourne, tendinopathy in athletes, management is far Victoria, Australia 7 Anatomy K M Khan from scientifically based. After highlighting The patellar tendon, the extension of the com- J L Cook some aspects of clinically relevant basic sci- mon tendon of insertion of the quadriceps ence, we aim to (a) review studies of patellar femoris muscle, extends from the inferior pole Department of tendon pathology that explain why the condi- of the patella to the tibial tuberosity. It is about Orthopaedic Surgery, tion can become chronic, (b) summarise the University of Aberdeen 3 cm wide in the coronal plane and 4 to 5 mm Medical School, clinical features and describe recent advances deep in the sagittal plane. Macroscopically it Aberdeen, Scotland, in the investigation of this condition, and (c) appears glistening, stringy, and white. United Kingdom outline conservative and surgical treatment NMaVulli options. BLOOD SUPPLY Department of The blood supply has been postulated to con- 89 Medicine, University tribute to patellar tendinopathy. -
Repair of Rectus Femoris Rupture with LARS Ligament
BMJ Case Reports: first published as 10.1136/bcr.06.2011.4359 on 20 March 2012. Downloaded from Novel treatment (new drug/intervention; established drug/procedure in new situation) Repair of rectus femoris rupture with LARS ligament Clare Taylor, Rathan Yarlagadda, Jonathan Keenan Trauma and Orthopaedics Department, Derriford Hospital, Plymouth, UK Correspondence to Miss Clare Taylor, [email protected] Summary The rectus femoris muscle is the most frequently involved quadriceps muscle in strain pathologies. The majority of quadriceps muscle belly injuries can be successfully treated conservatively and even signifi cant tears in the less active and older population, non-operative management is a reasonable option. The authors report the delayed presentation of a 17-year-old male who sustained an injury to his rectus femoris muscle belly while playing football. This young patient did not recover the functional outcome required to get back to running and participating in sport despite 15 months of physiotherapy and non-operative management. Operative treatment using the ligament augmentation and reconstruction system ligament to augment Kessler repair allowed immediate full passive fl exion of the knee and an early graduated physiotherapy programme. Our patient was able to return to running and his previous level of sport without any restrictions. BACKGROUND confi rmed a tear (at least grade 2) in the proximal musculo- The rectus femoris muscle is the most frequently involved tendinous junction of the rectus femoris. The patient had quadriceps muscle in strain pathologies,1 2 principally pain and weakness in the thigh and had been unable to because of its two joint function and high percentage of return to any sport. -
Quadriceps Tendon Rupture Anatomy & Biomechanics
QUADRICEPS TENDON RUPTURE AND SURGICAL REPAIR Page 1 of 6 QUADRICEPS TENDON RUPTURE ANATOMY & BIOMECHANICS Figure 1: Frontal View of Normal Patellar Tendon and Extensor Mechanism. At the top of the patella, the quadriceps tendon is attached. At the top of the quadriceps tendon is the quadriceps muscle. The quadriceps muscle is the large muscle on the front of the thigh. As the quadriceps muscle contracts (shortens), it pulls on the quadriceps tendon, the patella, the patellar tendon, and the tibia to move the knee from a flexed (bent) position to an extended (straight) position. Conversely, when the quadriceps muscle relaxes, it lengthens. This allows the knee to move from a position of extension (straight) to a position of flexion (bent). (Click HERE for a computer animation of basic knee motion (mpg file) courtesy of Rob Kroeger.) http://www.arthroscopy.com/quadrep.htm 9/5/2006 QUADRICEPS TENDON RUPTURE AND SURGICAL REPAIR Page 2 of 6 Figure 2: Lateral View of a Normal Knee with an Intact Quadriceps Tendon. Figure 3: Lateral View of a Normal Knee with an Intact Quadriceps Tendon. INJURY When the quadriceps tendon ruptures, the patella loses its anchoring support in the thigh. Without this anchoring effect of the intact quadriceps tendon, the patella tends to move inferiorly (towards the foot). Without the intact quadriceps tendon, the patient is unable to straighten the knee. If a rupture of the quadriceps tendon occurs, and the patient tries to http://www.arthroscopy.com/quadrep.htm 9/5/2006 QUADRICEPS TENDON RUPTURE AND SURGICAL REPAIR Page 3 of 6 stand up, the knee will usually buckle and give way because the body is no longer able to hold the knee in a position of extension (straight). -
Quadriceps Tendon Repair
Alta View Sports Medicine Dr. James R. Meadows, MD Orthopedic Surgery & Sports Medicine 74 Kimballs Ln Ste 230, Draper, UT 84020 9844 S. 1300 E. Ste 100, Sandy, UT 84094 (801) 571-9433 www.MeadowsMD.com Quadriceps Tendon Repair What to Expect The patella is embedded in the quadriceps and patella tendons and acts as a pulley to increase the amount of force that can be generated by the quadriceps muscles to extend the knee. The quadriceps tendon attaches the quadriceps muscles to the patella and the patella tendon connects the patella to the tibial tubercle. These strong tendons can be torn by forceful contraction of the quadriceps muscles during sports, jumping, a fall, or a direct blow to the knee. Surgery is indicated to restore motion and stability to the knee and restore normal gait. The torn tendon is repaired using various techniques involving strong sutures, drill tunnels through the patella, or suture anchors to reattach the tendon to the patella. Chronic tears may be reconstructed using a tendon graft to augment the repair. Appropriate tension is applied to the repair and the repair must be protected to allow the tendon to heal in the first few weeks after surgery. A hinged knee brace is used to control your knee motion to avoid re-tearing the repair before it has completely healed. Appropriate rehabilitation is critical to the success of the procedure. Phase 1 (0 – 2 weeks postop) Goals: Control pain, Diminish swelling, Begin regaining knee motion—achieve full knee extension, Protect the tendon repair • Pain: You will be prescribed pain medication to use after surgery. -
Patellar Tendon Debridement Surgery
175 Cambridge Street, 4th floor Boston, MA 02114 Tel: 617-726-7500 PATELLAR TENDON DEBRIDEMENT SURGERY PREOPERATIVE INSTRUCTIONS Here are guidelines that will help you prepare for surgery: WITHIN ONE MONTH BEFORE SURGERY: The doctor will see you in the office. The doctor or his associate will do a preoperative history and physical examination and complete the necessary paperwork. He will write preoperative hospital orders and order laboratory tests. These tests usually include a complete blood count (and also electrocardiogram for patients over 40 years old.) SEVERAL DAYS BEFORE SURGERY: Wash the knee several times a day to get it as clean as you can. This decreases the risk of infection. Be careful not to get any scratches, cuts, sunburn, poison ivy, etc. The skin has to be in very good shape to prevent problems. You do not need to shave the knee. THE DAY BEFORE SURGERY: Please contact the doctor’s office to get the exact time you should report to the hospital for surgery. You can have nothing to eat or drink after midnight on the evening before surgery. It is very important to have a completely empty stomach prior to surgery for anesthesia safety reasons. If you have to take medication, you can take the medication with a sip of water early in the morning prior to surgery (but later tell the anesthesiologist you have done so). THE DAY OF SURGERY: Surgery is performed in the Wang building at MGH and at the Orthopedic Ambulatory Surgery Center at Mass General West in Waltham. • nothing to eat or drink • For surgery at MGH main campus in Boston: Report directly to the 12th floor of the Lunder Building, Center for Preoperative Care at Massachusetts General Hospital, two hours prior to surgery. -
Anatomy of the Lateral Retinaculum
Anatomy of the lateral retinaculum Introduction The lateral retinaculum of the knee is not a distinct anatomic structure but is composed of various fascial structures on the lateral side of the patella. Anatomical descriptions of the lateral retinaculum have been published, but the attachments, name or even existence of its tissue bands and layers are controversial. The medial patellofemoral ligament on the other hand has been more recently re-examined and its detailed anatomy characterised (Amis et al., 2003, Nomura et al., 2005, Panagiotopoulos et al., 2006, Smirk and Morris, 2003, Tuxoe et al., 2002) The first fascial layer is the fascia lata (deep fascia) that continues to envelop the knee from the thigh (Kaplan, 1957). The fascia lata covers the patellar region but does not adhere to the quadriceps apparatus. The iliotibial tract is integral to the deep fascia and is a lateral thickening of the fascia lata. The anterior expansion of the iliotibial band curves forward. It forms a group of arciform fibres and blends with the fascia lata covering the patella. Fulkerson (Fulkerson and Gossling, 1980) described the anatomy of the knee lateral retinaculum in two distinctly separate layers (Figure 1). The superficial oblique layer originates from the iliotibial band and interdigitates with the longitudinal fibres of the vastus lateralis. The deep layer consist of the deep transverse retinaculum with the epicondylopatellar ligament proximally and the patellotibial ligament distally. The patellotibial ligament proceeds obliquely to attach to the lateral meniscus and tibia. The epicondylopatellar ligament was said to be probably the same 1 ligament described by Kaplan. -
Tendon Geometry After Rectus Femoris Tendon Transfer by DEANNA S
COPYRIGHT © 2004 BY THE JOURNAL OF BONE AND JOINT SURGERY, INCORPORATED Three-Dimensional Muscle- Tendon Geometry After Rectus Femoris Tendon Transfer BY DEANNA S. ASAKAWA, PHD, SILVIA S. BLEMKER, MS, GEORGE T. RAB, MD, ANITA BAGLEY, PHD, AND SCOTT L. DELP, PHD Investigation performed at the Department of Mechanical Engineering, Stanford University, Stanford, the Shriners Hospital for Children Northern California, Sacramento, and the Veterans Affairs Palo Alto Health Care System, Palo Alto, California Background: Rectus femoris tendon transfer is performed in patients with cerebral palsy to improve knee flexion during walking. This procedure involves detachment of the muscle from its insertion into the quadriceps tendon and reattachment to one of the knee flexor muscles. The purpose of the present study was to evaluate the muscle-tendon geometry and to assess the formation of scar tissue between the rectus femoris and adjacent structures. Methods: Magnetic resonance images of the lower extremities were acquired from five subjects after bilateral rectus femoris tendon transfer. A three-dimensional computer model of the musculoskeletal geometry of each of the ten limbs was created from these images. Results: The three-dimensional paths of the rectus femoris muscles after transfer demonstrated that the muscle does not follow a straight course from its origin to its new insertion. The typical muscle-tendon path included an an- gular deviation; this deviation was sharp (>35°) in seven extremities. In addition, scar tissue between the transferred rectus femoris and the underlying muscles was visible on the magnetic resonance images. Conclusions: The angular deviations in the rectus femoris muscle-tendon path and the presence of scar tissue be- tween the rectus femoris and the underlying muscles suggest that the beneficial effects of rectus femoris tendon transfer are derived from reducing the effects of the rectus femoris muscle as a knee extensor rather than from con- verting the muscle to a knee flexor.