Chronic ACLD Knees with Early Developmental Cartilage Lesions Exhibited Increased Posterior Tibial Translation during Level Walking
Xiaolong Zeng, Fangzheng Lin, Wenhan Huang, Lingchuang Kong, Jiajun Zeng, Da Guo, Yu Zhang, Dingkun Lin
Chronic ACLD Knees with Early Developmental Cartilage Lesions Exhibited Increased Posterior Tibial Translation during Level Walking
Objective: Early articular cartilage lesion (CL) is a vital sign in the onset of posttraumatic knee osteoarthritis (PTOA) in patients with anterior cruciate ligament deficiency (ACLD). Researchers have suggested that altered kinematics could accelerate CLs and, therefore, lead to the onset of PTOA. However, little is known about whether specific knee kinematics exist that lead to early CL in chronic ACLD knees. Level walking is the most frequent and relevant in vivo activity, which greatly impacts knee health. We hypothesized that the knee kinematics during level walking in chronic ACLD knees with early tibiofemoral CL would significantly differ from those of chronic ACLD knees without early tibiofemoral CL.
Methods: Thirty patients with a chronic ACLD history, including 18 subjects with CLs and 12 subjects without CLs, and 35 healthy control subjects were recruited for the study from July 2020 to August 2022. The knee kinematic data during level walking were collected using a three-dimensional motion analysis system. The kinematic differences between groups were compared using statistical parametric mapping with one dimension for One-Way ANOVA. The cartilage statuses of the ACLD knees were assessed via MRI examination. The CLs distribution of subjects was evaluated using a modified Noyes scale and analyzed by chi-square tests.
Results: ACLD knees with CLs had significantly greater posterior tibial translation (7.7–8.0mm, 12%–18% gait cycle GC, p = 0.014) compared to ACLD knees without CLs during level walking. ACLD knees with CLs had greater posterior tibial translation (4.6–5.5mm, 0%–23% GC, p < 0.001; 5.8–8.0mm, 86%–100% GC, p < 0.001) than healthy controls during level walking. In the group of ACLD knees with CLs, CL is mainly located in the back of the tibia plateau and front of load bearing area of the medial femoral condyle (p < 0.05).
Conclusion: Chronic anterior cruciate ligament deficient knees with cartilage lesions have increased posterior tibial translation compared to anterior cruciate ligament deficient knees without cartilage lesions and healthy subjects. The posterior tibial translation may play an important role in knee cartilage degeneration in ACLD knees. The increased posterior tibial translation and cartilage lesion characteristics may improve our understanding of the role of knee kinematics in cartilage degeneration and could be a helpful potential reference for anterior cruciate ligament deficient therapy, such as physical training to improve abnormal kinematic behavior.
Anterior Cruciate Ligament Deficiency / Cartilage Lesion / Knee Kinematics / Level Walking / Post-Traumatic Knee Osteoarthritis
[1] |
AjuiedA, WongF, SmithC, Norris M, EarnshawP, BackD, et al. Anterior cruciate ligament injury and radiologic progression of knee osteoarthritis: a systematic review and meta-analysis. Am J Sports Med. 2014;42(9):2242–2252.
|
[2] |
PoulsenE, Goncalves GH, BriccaA, RoosEM, Thorlund JB, JuhlCB. Knee osteoarthritis risk is increased 4-6 fold after knee injury – a systematic review and meta-analysis. Br J Sports Med. 2019;53(23):1454–1463.
|
[3] |
BodkinSG, WernerBC, SlaterLV, Hart JM. Post-traumatic osteoarthritis diagnosed within 5 years following ACL reconstruction. Knee Surg Sports Traumatol Arthrosc. 2020;28(3):790–796.
|
[4] |
Glyn-JonesS, PalmerAJ, AgricolaR, Price AJ, VincentTL, WeinansH, et al. Osteoarthritis. Lancet. 2015;386(9991):376–387.
|
[5] |
ChaudhariAM, BriantPL, BevillSL, Koo S, AndriacchiTP. Knee kinematics, cartilage morphology, and osteoarthritis after ACL injury. Med Sci Sports Exerc. 2008;40(2):215–222.
|
[6] |
LiG, LiJS, TorrianiM, Hosseini A. Short-term contact kinematic changes and longer-term biochemical changes in the cartilage after ACL reconstruction: a pilot study. Ann Biomed Eng. 2018;46(11):1797–1805.
|
[7] |
SvantessonE, Hamrin Senorski E, WebsterKE, KarlssonJ, Diermeier T, RothrauffBB, et al. Clinical outcomes after anterior cruciate ligament injury: panther symposium ACL injury clinical outcomes consensus group. Knee Surg Sports Traumatol Arthrosc. 2020;28(8):2415–2434.
|
[8] |
BizC, MasoG, GambatoM, Belluzzi E, PozzuoliA, FaveroM, et al. Challenging surgical treatment of displaced articular Tibial plateau fractures: do early knee radiographic features have a predictive value of the mid-term clinical functional outcomes? Orthop Surg. 2019;11(6):1149–1162.
|
[9] |
BelluzziE, Olivotto E, TosoG, CigolottiA, Pozzuoli A, BizC, et al. Conditioned media from human osteoarthritic synovium induces inflammation in a synoviocyte cell line. Connect Tissue Res. 2019;60(2):136–145.
|
[10] |
FrankCB, Beveridge JE, HuebnerKD, HeardBJ, TapperJE, O'BrienEJ, et al. Complete ACL/MCL deficiency induces variable degrees of instability in sheep with specific kinematic abnormalities correlating with degrees of early osteoarthritis. J Orthop Res. 2012;30(3):384–392.
|
[11] |
ZaidM, Lansdown D, SuF, PedoiaV, TuftsL, RizzoS, et al. Abnormal tibial position is correlated to early degenerative changes one year following ACL reconstruction. J Orthop Res. 2015;33(7):1079–1086.
|
[12] |
ZampeliF, PappasE, VelonakisG, Roumpelakis IM, PoulouLS, PapagiannisGI, et al. Development of new cartilage lesions after ACL reconstruction is associated with abnormal knee rotation. Knee Surg Sports Traumatol Arthrosc. 2022;30(3):842–851.
|
[13] |
StergiouN, Ristanis S, MoraitiC, GeorgoulisAD. Tibial rotation in anterior cruciate ligament (ACL)-deficient and ACL-reconstructed knees: a theoretical proposition for the development of osteoarthritis. Sports Med. 2007;37(7):601–613.
|
[14] |
AndriacchiTP, KooS, ScanlanSF. Gait mechanics influence healthy cartilage morphology and osteoarthritis of the knee. J Bone Joint Surg Am. 2009;91(Suppl 1):95–101.
|
[15] |
CrookBS, Collins AT, LadNK, SpritzerCE, Wittstein JR, DeFrateLE. Effect of walking on in vivo tibiofemoral cartilage strain in ACL-deficient versus intact knees. J Biomech. 2021;116:110210
|
[16] |
HaughomB, Schairer W, SouzaRB, CarpenterD, MaCB, LiX. Abnormal tibiofemoral kinematics following ACL reconstruction are associated with early cartilage matrix degeneration measured by MRI T1rho. Knee. 2012;19(4):482–487.
|
[17] |
LiAK, OchoaJK, PedoiaV, Amano K, SouzaRB, LiX, et al. Altered tibiofemoral position following ACL reconstruction is associated with cartilage matrix changes: a voxel-based relaxometry analysis. J Orthop Res. 2020;38(11):2454–2463.
|
[18] |
ArnoS, HadleyS, CampbellKA, Bell CP, HallM, BeltranLS, et al. The effect of arthroscopic partial medial meniscectomy on tibiofemoral stability. Am J Sports Med. 2013;41(1):73–79.
|
[19] |
GoldGE, ChenCA, KooS, Hargreaves BA, BangerterNK. Recent advances in MRI of articular cartilage. AJR Am J Roentgenol. 2009;193(3):628–638.
|
[20] |
ZhangY, YaoZ, WangS, Huang W, MaL, HuangH, et al. Motion analysis of Chinese normal knees during gait based on a novel portable system. Gait Posture. 2015;41(3):763–768.
|
[21] |
ElfringR, de la Fuente M, RadermacherK. Assessment of optical localizer accuracy for computer aided surgery systems. Comput Aided Surg. 2010;15(1–3):1–12.
|
[22] |
ZhangY, HuangW, YaoZ, MaL, LinZ, WangS, et al. Anterior cruciate ligament injuries Alter the kinematics of knees with or without meniscal deficiency. Am J Sports Med. 2016;44(12):3132–3139.
|
[23] |
Levine (Veterinary physical therapist) D, Whittle M, WhittleMGA. Whittle's gait analysis. In: Levine D, RichardsJ, WhittleMW, editors. 5th ed.Edinburgh; New York, Scotland: Churchill Livingstone/Elsevier; 2012.
|
[24] |
PerryJ, Burnfield JM. Gait analysis: normal and pathological function. 2nd ed.Thorofare, NJ: SLACK; 2010.
|
[25] |
LevineD, Richards J, WhittleM, WhittleM. Whittle's gait analysis. 5th ed.New York: Churchill Livingstone/Elsevier, Edinburgh; 2012.
|
[26] |
ChangWX, XuN, KumagaiT, Shiraishi T, KikuyamaT, OmizoH, et al. The impact of Normal range of serum phosphorus on the incidence of end-stage renal disease by a propensity score analysis. PloS One. 2016;11(4):e0154469
|
[27] |
PatakyTC. One-dimensional statistical parametric mapping in python. Comput Methods Biomech Biomed Engin. 2012;15(3):295–301.
|
[28] |
AltmanDG. Practical statistics for medical research, Chapman & Hall/CRC. Boca Raton: Fla; 1999.
|
[29] |
SlaterLV, HartJM, KellyAR, Kuenze CM. Progressive changes in walking kinematics and kinetics after anterior cruciate ligament injury and reconstruction: a review and meta-analysis. J Athl Train. 2017;52(9):847–860.
|
[30] |
ShabaniB, BytyqiD, LustigS, Cheze L, BytyqiC, NeyretP. Gait changes of the ACL-deficient knee 3D kinematic assessment. Knee Surg Sports Traumatol Arthrosc. 2015;23(11):3259–3265.
|
[31] |
ZampeliF, Terzidis I, Espregueira-MendesJ, GeorgoulisJD, BernardM, PappasE, et al. Restoring tibiofemoral alignment during ACL reconstruction results in better knee biomechanics. Knee Surg Sports Traumatol Arthrosc. 2018;26(5):1367–1374.
|
[32] |
DiermeierT, Rothrauff BB, EngebretsenL, LynchAD, Svantesson E, Hamrin SenorskiE, et al. Treatment after anterior cruciate ligament injury: panther symposium ACL treatment consensus group. J ISAKOS. 2021;6(3):129–137.
|
[33] |
BizC, Cigolotti A, ZontaF, BelluzziE, Ruggieri P. ACL reconstruction using a bone patellar tendon bone (BPTB) allograft or a hamstring tendon autograft (GST): a single-center comparative study. Acta Biomed. 2019;90(12-s):109–117.
|
[34] |
IkutaF, YonetaK, MiyajiT, Kidera K, YonekuraA, OsakiM, et al. Knee kinematics of severe medial knee osteoarthritis showed tibial posterior translation and external rotation: a cross-sectional study. Aging Clin Exp Res. 2020;32(9):1767–1775.
|
[35] |
ChmielewskiTL, RamseyDK, Snyder-MacklerL. Evidence for differential control of tibial position in perturbed unilateral stance after acute ACL rupture. J Orthop Res. 2005;23(1):54–60.
|
[36] |
Van RossomS, KhatibN, HoltC, Van Assche D, JonkersI. Subjects with medial and lateral tibiofemoral articular cartilage defects do not alter compartmental loading during walking. Clin Biomech (Bristol, Avon). 2018;60:149–156.
|
/
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