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Single-Stage Anterior Cruciate Ligament Revision Reconstruction Using an Allograft Bone Dowel for a Malpositioned and Widened Femoral Tunnel.

ABSTRACT: Tunnel widening, osteolysis, and/or malposition can be a cause of anterior cruciate ligament (ACL) reconstruction failure and a challenging problem to treat when performing revision ACL reconstruction (RACLR). Traditionally, problematic tunnels that interfere with bony stability and incorporation of the new graft at the time of revision have been treated with staged procedures-bone grafting first, followed by a return several months later for the revision reconstruction after bony incorporation has occurred. Multiple staged procedures increase the level of risk the patient may encounter and increase cost and resource utilization. In addition, they prolong the recovery period for the patient. In recent years, several studies have evaluated the clinical outcomes of performing bone grafting of tunnels and concomitant RACLR in a single-stage setting in an effort to mitigate these issues. We describe a technique by which a malpositioned and widened femoral tunnel from a primary ACL failure is treated with bone grafting using an allograft dowel, as well as immediate RACLR using a bone-patellar tendon-bone allograft.

SUBMITTER: Ernat JJ

PROVIDER: S-EPMC8322569 | biostudies-literature |

REPOSITORIES: biostudies-literature

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Fatigue Behavior of Nitinol Anterior Cruciate Ligament Graft and Inappropriate Femoral Tunnel Placement: Single-Stage Revision Anterior Cruciate Ligament Reconstruction Surgery.

Project description:Anterior cruciate ligament (ACL) injury is the most common ligament injury in the knee, and progressive instability and disability may develop in a significant number of patients. The incidence of ACL reconstruction is rapidly increasing, as is the number of failures. Although ACL reconstruction is a common procedure, less than satisfactory outcomes have been reported to occur in up to 25% of patients. The reasons for clinical failure after ACL reconstruction are numerous but can be broadly separated into 3 categories: technical, biological, and mechanical failures. It is generally thought that poor tunnel positioning (especially the femoral tunnel) is the most common technical error. Revision ACL reconstruction can be performed in 1 or 2 stages. The decision to perform a multistage approach is based on the position and size of the original tunnels. The varied success rates and associated advantages and disadvantages of each method have resulted in controversy as to the best treatment for revision ACL surgery. We describe our preferred operative technique to remove a fractured nitinol synthetic ACL graft and manage single-stage revision ACL reconstruction without bone grafting.

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Three-dimensional fluoroscopic navigation guidance for femoral tunnel creation in revision anterior cruciate ligament reconstruction.

Project description:Revision anterior cruciate ligament (ACL) reconstruction is accompanied by several technical challenges that must be addressed, such as a primary malpositioned bone tunnel, pre-existing hardware, or bone defects due to tunnel expansion. We describe a surgical technique used to create an anatomic femoral socket using a 3-dimensional (3D) fluoroscopy-based navigation system in technically demanding revision cases. After a reference frame is rigidly attached to the femur, an intraoperative image of the distal femur is obtained, which is transferred to a navigation system and reconstructed into a 3D image. A navigation computer helps the surgeon to visualize the whole image of the lateral wall of the femoral notch, even if the natural morphology of the intercondylar notch has been destroyed by the primary procedure. In addition, the surgeon can also confirm the position of the previous bone tunnel aperture, the previous exit of the femoral tunnel, and the presence of any pre-existing hardware on the navigation monitor. When a new femoral guidewire for the revision procedure is placed, the virtual femoral tunnel is overlaid on the reconstructed 3D image in real time. At our institution, 12 patients underwent 1-stage revision ACL procedures with the assistance of this computer navigation system, and the grafts were securely fixed in anatomically created tunnels in all cases. This technology can assist surgeons in creating anatomic femoral tunnels in technically challenging revision ACL reconstructions.

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Revision Anterior Cruciate Ligament Reconstruction: Tibial Tunnel-First Graft-Sizing Technique.

Project description:Revision anterior cruciate ligament reconstruction (R-ACLR) has become more common as the number of failed primary ACLRs increase. Although increasingly common, R-ACLR has a greater failure rate than a primary reconstruction. Technical errors, particularly in tunnel placement, account for a large proportion of graft failure in R-ACLR as well as re-revision cases. Tunnel placement and trajectory is particularly important in R-ACLR and becomes more challenging with each additional revision attempt. This is in part because any tunnels created for revision may converge with formerly drilled tunnels or face interference hardware creating, complicating proper graft fixation. While there are many approaches to revision ACL surgery, our technique describes a simple, tibial tunnel-first graft-sizing method initially reaming tunnels with very small diameters and sequentially working your way up to more anatomic diameters.

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Ultrasonic Technique for Femoral Tunnel Creation in Anterior Cruciate Ligament Reconstruction

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Project description:Revision anterior cruciate ligament (ACL) reconstruction is substantially more challenging than primary reconstruction. Management of previously malpositioned or widened tunnels often requires innovative approaches for managing bony defects. Massive osteolysis with poor bone stock and convergence or overlapping of revision tunnels into the previously placed tunnels may necessitate a staged revision procedure. In this surgical technique description, we describe a method for the management of bony deficiencies using allograft bone dowels in staged revision ACL reconstruction.

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Project description:Anterior cruciate ligament (ACL) reconstruction with preservation of either the remnant or the tibial stump is performed with the hope of improving the vascularization and proprioceptive function of the graft. Remnant preservation is technically difficult because it hinders the visualization of the intra-articular tunnel site. Taking a cue from the concept of tibial stump preservation, we have modified our ACL reconstruction technique to preserve a sleeve of the soft tissue and ACL stump attached to the femoral condyle, in addition to tibial stump preservation, while still allowing adequate visualization of the femoral ACL insertion site. We describe our modification in this article and hypothesize that this should further improve graft vascularization and ligamentization.

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Combined Anatomic Anterior Cruciate and Anterolateral Ligament Reconstruction With Quadriceps Tendon Autograft and Gracilis Allograft Through a Single Femoral Tunnel.

Project description:Despite technical advances in anterior cruciate ligament (ACL) reconstruction surgery, there remains a need to improve postoperative outcomes with respect to graft failure rates. Recently, it has been shown that combined ACL-anterolateral ligament (ALL) reconstruction (using a graft composed of a tripled semitendinosus and single-strand gracilis tendon) is associated with a significant reduction in graft rupture rates compared with isolated ACL reconstruction. It is recognized that the hamstring tendons are not always available (revision scenario) or are not always the primary ACL graft choice. Some surgeons prefer to use quadriceps tendon ACL grafts because of the suggestion that these grafts may be associated with equal or better functional scores. However, if surgeons wish to try to reduce the risk of graft failure by performing an ALL reconstruction, either a combined reconstruction or the use of an independent ALL graft, with a separate femoral socket, could be considered. The disadvantage of an independently performed extra-articular procedure is the risk of femoral socket collision with the femoral ACL tunnel. This Technical Note therefore describes the use of a combined ACL-ALL reconstruction using quadriceps tendon autograft (ACL graft), gracilis allograft (ALL graft), and a single femoral tunnel.

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Combined Revision Anterior Cruciate Ligament and Anterolateral Ligament Reconstruction.

Project description:There has been a substantial increase in the number of revision anterior cruciate ligament (ACL) reconstructions performed in the past decade. This Technical Note describes combined revision ACL and anterolateral ligament reconstruction using outside-in drilling, which avoids the need for 2-stage revision ACL reconstruction because it allows unconstrained anatomic placement.

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Combined reconstruction of the anterior cruciate ligament and posterolateral corner with a single femoral tunnel.

Project description:Combined injuries involving the anterior cruciate ligament (ACL) and posterolateral corner (PLC) occur in approximately 10% of complex knee injuries. The current tendency is to reconstruct both the ACL and the structures of the PLC. In injuries involving multiple ligaments, a potential problem in the reconstruction is the convergence of tunnels in the lateral walls of the femur. As a solution to this problem, we propose a combined technique for reconstruction of the ACL and PLC with a single tunnel in the lateral femoral wall. Combined ACL/PLC reconstruction is performed with 2 semitendinosus tendons and 1 gracilis tendon. The technique consists of making a tunnel in the lateral wall of the femur, from the outside in, at the isometric point, for reconstruction of the collateral ligament and popliteus tendon, and emerging in the joint region at the anatomic point of the ACL reconstruction. The graft is passed from the tibia to the femur with the double gracilis tendon and the simple semitendinosus tendon; the remaining portions are left for reconstruction of the structures of the PLC. This technique is very effective in terms of minimizing the number of tunnels, but it does rely on having grafts of adequate size.

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Project description:Even after anterior cruciate ligament (ACL) tear, its remnant retains the vascularized synovial sheets, fibroblasts, myofibroblasts, and various mechanoreceptors within it. The aim of preserving the remnant is to retain these components during ACL reconstruction. In the recent past, there has been an increasing trend towards preserving remnants during ACL reconstruction. Although preserving remnants have physiological advantages, cyclops lesion and extension loss were among the most feared complications. Cyclops and loss of extension are due to the fallback of the remnant into the notch. Moreover, the mechanoreceptors present in the remnant are not active when the remnant is lax. These mechanoreceptors are active when the remnant is in tension. Thus, rather than merely preserving the remnant, it is essential to tension it for more physiological functions. Although there are various techniques of remnant tensioning described in the literature, these techniques require tampering of the fixation devices or an extra fixation device adding to the cost of surgery. We describe our modification of the remnant-tensioning method during anatomic ACL reconstruction. In this technique, the sutures holding the remnant are pulled out through the anatomic femoral tunnel and fixed with an interference screw along with the hamstring graft. This technique is cost-effective, reproducible, and does not require tampering with the fixation devices. Moreover, the direction of remnant pull will be the same as that of the reconstructed graft making both the graft and remnant anatomical in orientation. Suture management and visibility of the intraarticular structures during this procedure are a few downsides of this technique. The only prerequisite of this technique is a good quality remnant to hold the sutures.

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