Articles Vol. 65 No. CĐ 1 - Liên chi hội Phẫu thuật bàn tay 12/03/2024

25. ANTERIOR CRUCIATE LIGAMENT RECONSTRUCTION COMBINED MODIFIED LEMAIRE LATERAL EXTRA-ARTICULAR TENODESIS AUGMENTATION: THE EARLY OUTCOME

Truong Nguyen Khanh Hung1,2, Tran Binh Duong1,2, Le Dinh Hai Hai1,2, Nguyen Nam Anh3,4
1 Cho Ray Hospital
2 Bệnh viện Chợ Rẫy
3 Minh Anh Hospital
4 Bệnh viện Minh Anh
Corresponding author: drhung.bvcr@gmail.com
DOI: 10.52163/yhc.v65iCD1.985
36 Views
33 Downloads
Abstract

Background and purpose: Sports injuries involving the anterior cruciate ligament (ACL) are among the most common. Anterior Cruciate Ligament Reconstruction (ACLR) techniques have continuously improved since the 1980s. While ACLR has become increasingly reliable in recent years, rotational instability of the knee has yet to be completely restored. It is also important to note that the graft failure rate remains high (17.1%-18%), the return to pre-injury sports activity rate is low (44%-72%), and anterolateral rotational instability remains a problem for approximately 25% to 30% of patients after surgery. It is an advanced surgical procedure used to treat rotational instabilities known as Lemaire lateral extra-articular tenodesis augmentation (LET). It is used as an adjunct to ACLR and improves knee rotational instability. Young patients with anterolateral rotational instability after ACL rupture can benefit from this procedure as it allows them to resume sports activities following the reconstruction of the ACL.

Method: During the period October 2022 to Ferbuary 2024, 53 patients under the age of 25 with ruptured anterior cruciate ligaments (ACL) with a Pivot shift test result indicating a grade 2-3 underwent ACL reconstruction utilizing autologous superficial Quadriceps tendon autograft along with the modified Lemaire lateral extra-articular tenodesis augmentation (LET). The International Knee Documentation Committee (IKDC) score, the Tegner Activity Scale (TAS), and the Lysholm score were assessed before and after surgery. The KT-1000 arthrometer and Pivot shift test were used to evaluate joint laxity.

Results: In a minimum follow-up period of one year, 53 patients between the ages of 18 and 25 (mean 22.4 ± 3.8 years) were included. Six of the patients lost contact with us during follow-up. In the study, all patients (N = 53; 30 men and 23 women) had ACL grafts were fixed by all – inside technique. During the 10th month, the ACL re-tear rate is 1.9% (one case). At the final follow-up (mean 13.1 ± 2.1 months), the mean IKDC score was 88.9 ± 8.9, the mean Lysholm score was 93.8 ± 5.9, and the mean Tegner score was The average was 6.4 ± 1.5.

Conclusion: In young patients with high rotational instability after ACL rupture, LET and ACLR have demonstrated favorable clinical outcomes. A complete return to sports activities was possible for all patients without any complications.

References
[1]
Zbrojkiewicz D, C Vertullo, JE Grayson, Google Scholar
[2]
Increasing rates of anterior cruciate ligament Google Scholar
[3]
reconstruction in young Australians, 2000-2015. Google Scholar
[4]
Med J Aust, 2018. 208(8): p. 354-358. Google Scholar
[5]
Temperato J, M Ewing, CW Nuelle, Lateral Google Scholar
[6]
Extra-articular Tenodesis with Iliotibial Band Google Scholar
[7]
Using Knotless All-Suture Anchor Femoral Google Scholar
[8]
Fixation. Arthrosc Tech, 2023. 12(5): p. Google Scholar
[9]
e677-e682. Google Scholar
[10]
Na BR et al., Clinical Outcomes of Anterolateral Google Scholar
[11]
Ligament Reconstruction or Lateral Extraarticular Google Scholar
[12]
Tenodesis Combined With Primary Google Scholar
[13]
ACL Reconstruction: A Systematic Review209 Google Scholar
[14]
With Meta-analysis. Orthop J Sports Med, 2021. Google Scholar
[15]
(9): p. 23259671211023099. Google Scholar
[16]
Enda K, Chris R, Mark J et al., Factors Google Scholar
[17]
Influencing Return to Play and Second Anterior Google Scholar
[18]
Cruciate Ligament Injury Rates in Level 1 Google Scholar
[19]
Athletes After Primary Anterior Cruciate Google Scholar
[20]
Ligament Reconstruction: 2-Year Follow-up on Google Scholar
[21]
Reconstructions at a Single Center. The Google Scholar
[22]
American Journal of Sports Medicine, 2020. Google Scholar
[23]
(4): p. 812-824. Google Scholar
[24]
Giuseppe GC, Simone P, Alberto G et al., Google Scholar
[25]
Minimizing the risk of graft failure after anterior Google Scholar
[26]
cruciate ligament reconstruction in athletes. A Google Scholar
[27]
narrative review of the current evidence. Journal Google Scholar
[28]
of Experimental Orthopaedics, 2022. 9(1): p. 26. Google Scholar
[29]
Sebastian A, Lars S, Gaston C et al., Lateral Google Scholar
[30]
Extra-articular Tenodesis: A Technique With Google Scholar
[31]
an Iliotibial Band Strand Without Implants. Google Scholar
[32]
Arthrosc Tech, 2021. 10(1): p. e85-e89. Google Scholar
[33]
David LB, Mitchell IK, Matthew DC et Google Scholar
[34]
al., Combined Anterior Cruciate Ligament Google Scholar
[35]
Reconstruction and Lateral Extra-Articular Google Scholar
[36]
Tenodesis. Arthrosc Tech, 2019. 8(8): p. Google Scholar
[37]
e855-e859. Google Scholar
[38]
David JB , Caroline T, Sandrine K et al., ACL Google Scholar
[39]
Reconstruction: A Meta-analysis of Functional Google Scholar
[40]
Scores. Clinical Orthopaedics and Related Google Scholar
[41]
Research®, 2007. 458: p. 180-187. Google Scholar
[42]
Webster KE, JA Feller, Exploring the High Google Scholar
[43]
Reinjury Rate in Younger Patients Undergoing Google Scholar
[44]
Anterior Cruciate Ligament Reconstruction. Am Google Scholar
[45]
J Sports Med, 2016. 44(11): p. 2827-2832. Google Scholar
[46]
Chambat P et al., The evolution of ACL Google Scholar
[47]
reconstruction over the last fifty years. Int Google Scholar
[48]
Orthop, 2013. 37(2): p. 181-6. Google Scholar
[49]
Ahmed M, Stephen T, Conor H et al., Lateral Google Scholar
[50]
Extra-Articular Tenodesis Combined With Google Scholar
[51]
Anterior Cruciate Ligament Reconstruction Is Google Scholar
[52]
Effective in Knees With Additional Features of Google Scholar
[53]
Lateral, Hyperextension, or Increased Rotational Google Scholar
[54]
Laxity: A Matched Cohort Study. Arthroscopy, Google Scholar
[55]
38(1): p. 119-124. Google Scholar
[56]
Getgood AMJ et al., Lateral Extra-articular Google Scholar
[57]
Tenodesis Reduces Failure of Hamstring Google Scholar
[58]
Tendon Autograft Anterior Cruciate Ligament Google Scholar
[59]
Reconstruction: 2-Year Outcomes From the Google Scholar
[60]
STABILITY Study Randomized Clinical Trial. Google Scholar
[61]
Am J Sports Med, 2020. 48(2): p. 285-297. Google Scholar
[62]
Christopher EH, Michael NT, Nicole K et al., Google Scholar
[63]
Lateral Extra-articular Tenodesis Reduces Google Scholar
[64]
Rotational Laxity When Combined With Anterior Google Scholar
[65]
Cruciate Ligament Reconstruction: A Systematic Google Scholar
[66]
Review of the Literature. Arthroscopy, 2015. Google Scholar
[67]
(10): p. 2022-34. Google Scholar
[68]
Erik LS, Jacob DM, Jason MS et al., Google Scholar
[69]
Biomechanical Results of Lateral Extra-articular Google Scholar
[70]
Tenodesis Procedures of the Knee: A Systematic Google Scholar
[71]
Review. Arthroscopy, 2016. 32(12): p. 2592- Google Scholar
[72]
Niv M, Hervé O, Hamidreza J et al., Lateral Google Scholar
[73]
Extraarticular Tenodesis Reduces Anterior Cruciate Google Scholar
[74]
Ligament Graft Force and Anterior Tibial Google Scholar
[75]
Translation in Response to Applied Pivoting and Google Scholar
[76]
Anterior Drawer Loads. Am J Sports Med, 2020. Google Scholar
[77]
(13): p. 3183-3193. Google Scholar
[78]
Volker M, Ian DE, Ehab MN et al., Current Google Scholar
[79]
trends in the anterior cruciate ligament part II: Google Scholar
[80]
evaluation, surgical technique, prevention, and Google Scholar
[81]
rehabilitation. Knee Surg Sports Traumatol Google Scholar
[82]
Arthrosc, 2022. 30(1): p. 34-51. Google Scholar
[83]
Guan-Yang S, Lei H, Hui Z et al., Clinical Google Scholar
[84]
Outcomes of Combined Lateral Extra-articular Google Scholar
[85]
Tenodesis and Intra-articular Anterior Cruciate Google Scholar
[86]
Ligament Reconstruction in Addressing HighGrade Google Scholar
[87]
Pivot-Shift Phenomenon. Arthroscopy, Google Scholar
[88]
32(5): p. 898-905. Google Scholar
[89]
Jesani S, A Getgood, Modified Lemaire Lateral Google Scholar
[90]
Extra-Articular Tenodesis Augmentation of Google Scholar
[91]
Anterior Cruciate Ligament Reconstruction. Google Scholar
[92]
JBJS Essent Surg Tech, 2019. 9(4). Google Scholar
[93]
Fiil M, TG Nielsen, M Lind, A high level of Google Scholar
[94]
knee laxity after anterior cruciate ligament Google Scholar
[95]
reconstruction results in high revision rates. Google Scholar
[96]
Knee Surg Sports Traumatol Arthrosc, 2022. Google Scholar
[97]
(10): p. 3414-3421. Google Scholar
[98]
Brophy RH, RM Silverman, KJ Lowry, American Google Scholar
[99]
Academy of Orthopaedic Surgeons Clinical Google Scholar
[100]
Practice Guideline Case Study: Management of Google Scholar
[101]
Anterior Cruciate Ligament Injuries. J Am Acad Google Scholar
[102]
Orthop Surg, 2023. 31(11): p. 538-548. Google Scholar