Purpose
Methods
Results
Conclusions
Level of Evidence
Methods
Results

Category | No. RCTs | No. Patients | No. RCTs (%) With Significant Findings |
---|---|---|---|
Grafts | |||
Patella vs hamstrings | 45 | 4,582 | 2 (4.4) |
Allografts | 28 | 2,698 | 3 (10.7) |
Hamstrings | 12 | 953 | 2 (16.6) |
Quads | 6 | 394 | – |
Different autografts | 3 | 159 | – |
Synthetic | 7 | 560 | 1 (14.3) |
Tunnels | |||
TP (AM) vs TT | 13 | 1,169 | 4 (30.7) |
TP vs OI | 7 | 501 | 1 (14.3) |
Fixation | |||
Biofixation | 29 | 1,784 | – |
Femoral fixation | 16 | 1,483 | – |
Press-fit fixation | 3 | 225 | – |
Additional procedures | |||
Extra-articular tenodesis | 8 | 1,733 | 2 (25.0) |
ALLR | 3 | 441 | 1 (33.3) |
Single vs double | 42 | 2,976 | 2 (4.76) |
Tensioning | 11 | 855 | 3 (27.3) |
Navigation | 5 | 293 | – |
ACL repair | 6 | 572 | 1 (16.6) |
Timing of surgery | 5 | 419 | – |
Techniques | 25 | 1,970 | 3 (12.5) |
Perioperative management | 16 | 1,610 | 2 (12.5) |
Others | 9 | 439 | 3 (33.3) |
Total | 299 | 25,816 | 30 (10%) |

Graft Choice
RCT | Level of Evidence | Subgroup | Interventions | Outcome Measures | Results |
---|---|---|---|---|---|
Tian et al., 2017 19 | I | Allograft | Irradiated vs nonirradiated hamstrings allograft double bundle at 5.7 years’ FU (n = 83/112) | Lachman test, pivot shift test, KT-2000 arthrometer, IKDC, functional, subjective evaluations, activity level testing, and radiologic assessment. | Significant increase in laxity and arthritic progression found in irradiated grafts; KT-2000: 86.4% Non-ir-Allo vs 35.9% Ir-Allo had a side-to-side difference of <3 mm (P < .05). Arthritic progression: 30.8% Ir-Allo group vs 11.4% Non-ir-Allo group (P < .05). No significant differences in activity level or functional scores. |
Niu et al., 2016 20 | II | Allograft | Double-layer BPTB allografts vs 4-strand hamstrings allograft at 3 years’ FU (n = 101) | Graft failure, KT-1000 arthrometer, Lachman tests, pivot-shift tests, IKDC, and Lysholm scores. | Graft failure: 2 (4%) BPTB vs 9 (17.6%) 4-SH (P = .028). Significantly better Lachman test, IKDC knee score, and Lysholm score in favor of BPTB (P < .05) although below the threshold for clinical significance. |
Bottoni et al., 2015 21 | I | Allograft | Hamstring autograft vs tibialis posterior allograft at minimum 10 years’ FU (n = 96/99) | Graft failure, subjective knee stability, and functional status SANE, Tegner, and IKDC scores. | 4 (8.3%) autograft vs 13 (26.5%) allograft failures that required revision reconstruction. In the remaining patients whose graft was intact, there was no difference in functional scores. |
Zhao et al., 2007 22 | II | Hamstrings | 4- vs 8-strands hamstrings double bundle at minimum 2 years’ FU (n = 68/76) | KT-1000 arthrometer, IKCD, and Lysholm scores. | 8-SHG had significantly better results with: mean side-to-side difference in anterior knee laxity: 1.3 vs 2.8 mm (P = .0003). IKDC subjective: 96.3 vs 86.4 (P = .0007) Lysholm score: 96.5 vs 89.6 (P = .0006) |
Ferretti et al., 2008 23 | I | Hamstrings | Hamstrings/preserved insertion vs standard harvesting at 25 months’ FU (n = 35) | Clinical examination, isokinetic tests, and MRI | Better internal rotation with modified technique: Isokinetic tests: internal rotation strength deficit at 60° 84.60% vs 97.37% MRI: greater percentage of regenerated semitendinosus. |
Mohtadi et al., 2019 24 | I | Patella vs hamstrings | Patellar tendon, single-bundle 4-stranded hamstrings, or double-bundle hamstrings reconstruction at 5 years’ FU (n = 315/330). | ACL-QoL, IKDC, kneeling pain, Tegner activity scale, Cincinnati Occupational Rating Scale, re-ruptures, partial traumatic tears, total traumatic reinjuries, and atraumatic graft failures. | No difference in primary outcome ACL-QOL scores between groups (P = .548). No differences in IKDC, ROM, Cincinnati or Tegner scores. Kneeling pain: 10% vs 4% vs 2% (P = .029). Significantly more patients in the hamstring and double-bundle groups experienced traumatic graft reinjury compared with the patellar tendon group. Combined traumatic reinjuries: 4 vs 16 vs 17 (P = .01) |
Zaffagnini et al., 2006 25 | II | Patella vs hamstrings | BPTB, 4-strand hamstrings or single hamstrings with extra-articular plasty at 5 years’ FU (n = 75) | IKDC, IKDC subjective, Tegner, muscle circumference, anterior knee pain, kneeling pain | Anterior knee pain: 36% vs 12% vs 8% (P = .03) Kneeling pain: 72% vs 44% vs 12% (P = .0001) IKDC subjective: 82 vs 76 vs 89 (P = .04) No significant differences in functional scores. |
Dahlstedt et al., 1990 26 | II | Synthetic graft | Gore-Tex prosthetic ligament vs Kennedy ligament augmentation device at 3 years’ FU (n = 41) | Lysholm scores, activity scores, and arthrometry | Better outcomes with augmentation device and more complication with Gore-Tex group. |
Femoral Tunnel Techniques
- Kim J.G.
- Chang M.H.
- Lim H.C.
- Bae J.H.
- Ahn J.H.
- Wang J.H.
RCT | Level of Evidence | Subgroup | Interventions | Outcome Measures | Results |
---|---|---|---|---|---|
Takeda et al., 2013 27 | II | TP vs TT | Anteromedial vs Transtibial portals double-bundle hamstrings (n = 50) | Volume-rendering CT, 3D-CT tunnel placements on 7th postoperative day. | With AM technique, femoral tunnels were placed significantly deeper, lower, and closer to the femoral footprint and the overall femoral tunnel length was significantly shorter. |
Venosa et al., 2017 28 | I | TP vs TT | Anteromedial vs Transtibial portals hamstrings (n = 52) | Femoral tunnel positioning 3D-CT | AM portal technique provided more anatomical graft placement than TT techniques. |
Mirzatolooei, 2012 29 | II | TP vs TT | Transportal TransFix femoral fixation vs Transtibial using hamstrings at minimum 18 months’ FU (n = 168/223) | IKDC, Lysholm, Tegner scores and rolimeter, tunnel positioning | Better reported outcomes for TP group: Laxity (mean difference between normal / affected side): TT 2.2 ± 1.13 vs TP 1.73 ± 0.85 mm (P = .002). Mean Lysholm score 81.41 TP vs 78.32 TT (P = .037). More anatomic tunnel placement with TP |
Kim et al., 2013 30
Computed tomography analysis of the femoral tunnel position and aperture shape of transportal and outside-in ACL reconstruction: Do different anatomic reconstruction techniques create similar femoral tunnels?. Am J Sports Med. 2013; 41: 2512-2520 | I | TP vs OI | Transportal vs Outside-in double bundle (n = 80) | CT analysis of the femoral tunnel position | TP technique had significantly more ellipsoidal AM femoral tunnel aperture than the OI technique. |
Nakamura et al., 2020 31 | I | TP vs TT vs OI | Transportal vs Transtibial vs Outside-in techniques double-bundle (n = 86/98) | Femoral and tibial tunnel angles and positions 3D-CT | Femoral tunnel positions created by the TT technique were significantly higher, with larger variance, than the TP and OI technique. |
Graft Fixation
Additional Procedures
Single- Versus Double-Bundle Reconstruction
Graft Tensioning
DeFroda SF, Karamchedu NP, Budacki R, et al. Evaluation of graft tensioning effects in anterior cruciate ligament reconstruction between hamstring and bone-patellar tendon bone autografts [published online January 21, 2020]. J Knee Surg. https://doi.org/10.1055/s-0039-3402046.
Navigation
ACL Repair Versus Reconstruction
Timing of Surgery
RCT | Level of Evidence | Interventions | Outcome Measures | Results | |
---|---|---|---|---|---|
KANON trial | Frobell et al., 2010 41 | I | Structured rehabilitation plus early ACLR vs structured rehabilitation with optional delayed ACLR at 2 years’ FU (n = 121) | KOOS, SF-36, Tegner Scale. | No statistically significant differences between the 2 groups. |
Frobell et al., 2013 42 | at 5 years’ FU | KOOS, SF-36, Tegner activity scale, meniscal surgery, and radiographic osteoarthritis | No statistically significant differences between the 2 groups. | ||
Kiadaliri et al., 2016 43 | Economic evaluation at 5 years | Cost-effectiveness QALYs | No significant differences between the groups. | ||
Flosadottir et al., 2018 48 | at 6 years’ FU | Knee Self-Efficacy Scale | No significant differences between the groups | ||
Culvenor et al., 2019 44 | Secondary analysis at 5 years’ FU | PFJ cartilage loss MRI based | Early ACLR group had significantly greater loss of patellar cartilage thickness compared with optional delayed ACLR. | ||
Same trial | Eriksson et al., 2018 45 | II | ACLR within 8 days of injury vs delayed after normalized ROM 6-10 weeks after injury at 6 months’ FU (n = 70) | Visual analog scale, ROM, IKDC, Stability | No significant differences between the 2 groups, although less muscle atrophy in the early group compared with their contralateral side. |
Von Essen et al., 2020 46 | At 1-year FU | IKDC, stability, number of sick-leave days | No significant differences between the groups in clinical outcomes, significantly more sick days taken in the delayed group. | ||
Von Essen et al., 2020 47 | At 2 years’ FU | IKDC, KOOS, and manual stability measurements | No significant differences between the groups. | ||
Bottoni et al.,2008 49 | I | Early (<21 days) vs delayed (> 6 weeks) hamstring autograft ACLR at 1-year FU (n = 69) | KT-1000, SANE, Lysholm, and Tegner Activity Score | No statistically significant differences between the groups. | |
Chen et al., 2015 50 | II | Acute (3-7 weeks) vs chronic (6-11 months) ACLR using ligament advanced reinforcement system (LARS) artificial ligament in young adults (n = 55) | Lysholm scale, Tegner rating, a KT-1000, IKDC, Isokinetic strength quadriceps and hamstring | No significant differences between the groups. | |
Manandhar et al., 2018 51 | II | Early (3 weeks) vs delayed (6 weeks) ACLR (n = 104) | ROM, IKDC and Tegner scores | No significant differences between the groups |
Surgical Techniques
Perioperative Management
Others
Long-Term Follow Up RCTs (≥10 Years)
- Annear P.T.
- Rohr E.J.
- Hille D.M.
- Gohil S.
- Ebert J.R.
RCT | Level of Evidence | Subgroup | Interventions | Outcome measures | Results |
---|---|---|---|---|---|
Bottoni et al., 2015 21 | I | Allograft | Hamstring autograft vs tibialis posterior allograft at minimum 10 years (n = 96/99) | Graft failure, subjective knee stability and functional status SANE, Tegner, and IKDC scores. | 4 (8.3%) autograft vs 13 (26.5%) allograft failures required revision. In remaining patients whose graft was intact, there was no difference in functional scores. |
Sundaraj et al., 2020 66 | I | Biofixation | Bioabsorbable vs titanium screws (hamstring autograft) at 13 years (n = 40) | IKDC, KT-1000, MRI-tunnel volumes, ossification around screw, graft integration, and cyst formation. | No significant differences between the groups. |
Stensbirk et al., 2014 70 | I | Different autografts | Iliotibial band vs BPTB at 15 years (n = 49/60) | Failure rate, KOOS, Tegner, anterior knee pain, Lysholm score, Rolimeter laxity, extension deficit. | No significant differences between the groups. |
Castoldi et al., 2020 60 | II | EAT | BPTB +/– lateral extra-articular tenodesis at 19.4 years (n = 79/121) | Clinical outcomes, IKDC, radiographs | No significant differences between the groups although more lateral OA in EAT group (59% vs 22%; P = .02; n = 45/121). |
Meunier et al., 2007 59 | II | Others | Operative vs non-op at 15 years’ FU (n = 100) | KOOS, Lysholm, OA | No significant differences between the groups, ACLR neither reduced risk of OA nor increased subjective outcome scores. However, there were significantly more meniscus injuries in patients initially treated nonoperatively; 1/3 nonoperative patients later had ACLR for instability. |
Holm et al., 2012 61 | II | Others | Open vs arthroscopic at 12 years (n = 53/67) | Prevalence of OA on radiographs, Cincinnati score, clinical assessments | No significant differences between the groups (OA: 79% vs 80%) |
Sajovic et al., 2018 62 | II | Patella vs hamstrings | Patellar vs hamstring autografts at 17 years (n = 48/64) | IKDC, KT-1000 arthrometer, and radiography, SF -36, graft failure | No significant differences between the groups although more OA with patella (100% vs 71%; (P = .004). |
Björnsson et al., 2016 67 | II | Patella vs hamstrings | Patellar vs hamstrings autografts at 16 years (n = 147/193) | Laxity measurements, functional outcomes, PROMS, bilateral standing radiographs | No significant differences between the groups, significantly more signs of OA in the reconstructed knee vs contralateral knee. |
Webster et al., 2016 69 | I | Patella vs hamstrings | Patellar vs hamstrings at 15.3 years (n = 47/65) | Clinical assessment, anterior pain, laxity, ROM, radiographic outcomes | No significant difference between the groups. |
Barenius et al., 2014 63 | I | Patella vs hamstrings | Patella vs hamstrings at 14 years (n = 135/164) | Radiological examination, Tegner, KOOS | No significant difference between the groups. (OA 49% vs 65%; P = .073). |
Konrads et al., 2016 68 | II | Patella vs hamstrings | Patella vs hamstrings at 10 years (n = 47/62) | KT-1000, VAS, IKDC, Lysholm score, Tegner scale, and standard radiographs | No significant difference between the groups. |
Sporsheim et al., 2019 64 | I | Repair | Open repair methods: acute primary repair, acute repair with a ligament augmentation device or BPTB ACLR at 30 years (n = 113/150) | Tegner and Lysholm questionnaires, radiographic examination, revisions and knee arthroplasties. | Prevalence of OA 42%, BPTB had significantly less rate of revision. No significant differences between the groups (remaining patients) |
Järvelä et al., 2017 65 | II | Single- vs double- bundle | Single- (bio-screw) vs single- (metal-screw) vs double-bundle (bioscrew) at 10 years’ FU (n = 81/90) | KT-1000, IKDC, Lysholm scores, radiographic examination | Revision: 1 DB vs 7 SB-Bio vs 3 SB-metal (P = .043). No significant differences between the groups in clinical outcomes or OA (38% vs 28% contralateral knee). |
Annear et al., 2019 71
No clinical difference in 10-year outcomes between standard and minimal graft debridement techniques in patients undergoing anterior cruciate ligament reconstruction using autologous hamstrings: A randomized controlled trial. Knee Surg Sports Traumatol Arthrosc. 2019; 27: 516-523 | II | Technique | Remnant ACL preservation vs debridement graft hamstring autograft at 10 years (n = 44/49) | Graft failure rates, subjective outcomes | No significant differences between the groups. |
Drogset et al., 2006 40 | II | Technique | Acute primary repair, acute repair augmented with a synthetic ligament-augmentation device or acute repair with autologous BPTB graft at 16 years (n = 129/147) | Tegner activity score and Lysholm functional score. Stability (clinical examination and KT-1000 arthrometer). | Revision rate: 24%, 10%, and 2% respectively. The rate of revision was 10 times greater in the group that had primary repair than in the group that had repair with BPTB (P = .003) and the latter had significantly better stability (Lachman). OA changes noted in 11% in the reconstructed knee vs 3.5% in the contralateral knee (P = .001); no differences between groups. |
Discussion
Limitations
Conclusions
Supplementary Data
- ICMJE author disclosure forms
Appendix
Category | References to RCTs |
---|---|
Grafts | |
Patella vs hamstrings | Laoruengthana 2009, de Souza 2015, Röpke 2001, Gupta 2019, Mohammadi 2013, Konrads 2016, Webster 2016, Sadeghpour 2017, Wipfler 2011, Holm 2010, Beard 2001, Aune 2001, Sajovic 2011, Smith 2020, Sajovic 2018, Sajovic 2006, Feller 2003, Feller 2001, Webster 2001, Heijne 2010, Lidén 2007, Razi 2014, Ejerhed 2003, Matsumoto 2006, Covey 2018, Jansson 2003, Eriksson 2001, Stańczak 2017, Maletis 2007, Stanczak 2018, Gifstad 2013, Drogset 2010, Aglietti 2004, Laxdal 2005, Barenius 2014, Björnsson 2016, Kautzner 2015, Barenius 2010, Gupta 2019, Mohtadi 2016, Mohtadi 2015, Shaieb 2002 |
Allografts | Rose 2017, Lubowitz 2015, Moghtadaei 2013, Yoo 2017, Rose 2016, Noh 2013, Mutsuzaki 2012, Noh 2011, Sun 2011, Indelicato 2013, Sun 2012, Noh 2016, Noh 2013, Hong 2012, Tian 2016, Li 2015, Kang 2015, Bottoni 2015, Rose 2015, Lawhorn 2012, Dai 2016, Tian 2016, Sun 2009, Sun 2011, Sun 2015 |
Hamstrings | Krishna 2020, Ibrahim 2005, Tashiro 2003, Gobbi 2005, Franz 2016, McRae 2013, Karimi-Mobarakeh 2015, Ruffilli 2016, Liu 2018, Gupta 2017 |
Quads | Vilchez-Cavazos 2020, Martin-Alguacil 2018, Lind 2020, Sinding 2020, Lund 2014, Barié 2020 |
Different autografts | Mei 2016, Stensbirk 2014, Bi 2018 |
Synthetic | Muren 2003, Ghalayini 2010, Engstrom 1993, Drogset 2002, Elveos 2018, Peterson 2014 |
Tunnels | |
TP (AM) vs TT | Yanasse 2016, Zhang 2012, Guglielmetti 2014, MacDonald 2017, MacDonald 2018, Geng 2018, Minguell 2019, Godente 2018, Youm 2014 |
TP vs OI | Reat 1997, Gerich 1997, Lee 2015, Kyung 2013, Lee 2016, Kim 2018 |
Fixation | |
Biofixation | Jagodzinski 2010, Hegde 2014, Capuano 2008, Buhren 200, Marks 2008, Arneja 2004, Sundaraj 2020, Arama 2015, Fink 2000, Hackl 2000, Drogset 2011, Drogset 2006, Robert 2004, Stengel 2009, Moisala 2008, Chiang 2019, Bourke 2013, Suomalainen 2012, Kaeding 2005, Roger 2020, Laxdal 2006, Noh 2012, Järvelä 2008, Stener 2010, Carulli 2017, Myers 2008, Harilainen 2009, Benedetto 2000, McGuire 1999 |
Femoral fixation | Price 2010, Ibrahim 2015, Harilainen 2005, Björkman 2015, Sabat 2011, Mousavi 2017, da Silva Guarilha 2012, Hill 2005, Harilainen 2006, Fauno 2005, Mayr 2017, Mayr 2020, Kouloumentas 2019, Sharifzadeh 2017, DeWall 2011, Shumborski 2019 |
Press-fit fixation | Geiges 2013, Hwang 2013, Sarzaeem 2014 |
Additional procedures | |
Extra-articular tenodesis | Acquitter 2003, Anderson 2001, Trichine 2014, Castoldi 2020, Getgood 2020, McCormack 2019 |
ALLR | Ibrahim 2017, Sonnery-Cottet 2020 |
Single vs double | Kalawadia 2015, Debieux 2012, Araki 2011, Kanaya 2009, Beyaz 2017, Ikuta 2020, Beyaz 2012, Abdelrazek 2019, Sastre 2010, Irrgang 2012, Bohn 2015, Núñez 2012, Koga 2015, Järvelä 2008, Taylor 2009, Xiang 2019, Järvelä 2007, Adravanti 2017, Yang 2017, Mayr 2018, Mayr 2016, Wang 2009, Koken 2014, Liu 2016, Muneta 2007, Aglietti 2010, Karikis 2016, Järvelä 2017, Zhang 2014, Zeman 2014, Ahldén 2013, Sernert 2017, Song 2013, Aga 2018, Sasaki 2017, Suomalainen 2011, Hussein 2012, Zhang 2014, Lui 2012, Streich 2008 |
Tensioning | van Kampen1998, Kim 2006, Nicholas 2004, DeFroda 2018, Akelman 2016, Fleming 2013, Grunau 2016, Fleming 2020 |
Navigation | Hart 2008, Endele 2009, Mauch 2007, Plaweski 2006, Meuffels 2012 |
ACL repair | Hoogeslag 2019, Schliemann 2018, Kösters 2020, Murray 2020, Sporsheim 2019 |
Techniques | Petruskevicius 2002, Amendola 1999, Sørensen 2011, Matthews 2017, Demirağ 2012, Silva 2014, Gohil 2007, Annear 2019, Kosy 2020, Pujol 2012, Navali 2014, Lu 2015, Liu 2017, Koga 2015, Zhu 2018, Sharaby 2019, Mutsuzaki 2018, Zhang 2018, McCormack 2006, Lubowitz 2013, Yazdi 2014, Ahn 2019 |
Perioperative management | Mendias 2020, Tobias 2020, Johnston 2020, Mahdi 2019, Zeman 2018, Walters 2018, Mirzatolooei 2013, Valentí Azcárate 2014, Lee 2020, Felli 2019, Chiang 2019, Arciero 1996, Nicholas 2001, Nakayama 2013 |
Others | McCarthy 1993, Maddison 2012, Curran 2020, Valkering 2015, Holm 2012, Raab 1993 |
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The authors report that they have no conflicts of interest in the authorship and publication of this article. Full ICMJE author disclosure forms are available for this article online, as supplementary material.
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