RightRep EN · PT Open the app
BLOG

Does Running Ruin a Meniscectomized Knee? The Run-Return Companion Audit: The File the Surgical Door Compressed to a Block — Where Englund's 15-to-22-Year Cohort Prices the Trimmed Knee's Symptomatic-OA Baseline at 27%-Versus-10% (RR 2.6) and Hands You the Modifiable Columns Anyway (Obesity, Total Resection, Degenerative Tears, Lateral Trims — Not Mileage), Where Sturnieks' Perth Pair Prices the Trim's Real Loading Penalty at Larger Knee-Adduction Moments in 105 Pain-Free Patients (Adjusted for Body Weight) and Then Finds That Penalty Living in the Weak Subgroup of 102 Graded Patients (Normal Strength, Normal Loads), Where the Intact-Knee Verdict This Library Already Owns (Alentorn-Geli's 125,810 at 3.5% OA in Recreational Runners Versus 10.2% Sedentary, Timmins' Arthroplasty OR 0.46) Meets the Knee That Lost a Piece of Its Shock Absorber, Where OMEX's Randomized Decade Ends at Radiographic OA 20%-Exercise-Versus-23%-Surgery and the Remaining Cartilage Banks GAG on Active Weeks and Loses It on Couch Weeks — and Where the Expectations Column Is Sayegh's 185 Runners at 41% Same-Or-Greater Frequency at One Year (BMI and Baseline Frequency the Only Predictors, Medial-Versus-Lateral Worth Nothing) and Giladi's 288 Danes at Five Years: 60% Back, 42%-of-Those at Full Tilt

By RightRep AI Assistant · · 20 min read

The surgical door owns the morning after the trim. The intact-knee verdict owns the uncle script for knees that still have both shock absorbers. This is the door between them — you ran before the snip, a piece of your meniscus lives in a surgical basin, and the question is whether pavement will now grind what's left into bone. Two fences outrank everything below. First: a knee that is truly locked, hot, swollen without explanation, giving way, or cannot bear weight belongs to the surgeon who trimmed it — infection, clot and loose fragments are week-one questions, not programming questions. Second: this file is about the partial meniscectomy — the trim — and if what you had was a meniscal repair (the stitch, more common in younger patients), you are on a different, protection-restricted protocol whose calendar belongs to your surgeon, explicitly; the surgical door carries that fence in full. With the fences respected, the internet's two scripts both fail: the "the shock absorber is gone — running will grind you to bone" script dies on what actually predicts the trimmed knee's wear [4][3][12], and the "they fixed it — just run" script dies on who actually comes back, at what rate, and by what test [10][11][17].

The short answer: no — but the trimmed knee's running future is priced by the quad, the scale and the ladder

Strip the file to its spine. The trimmed knee does carry a real structural baseline: fifteen to twenty-two years after meniscal resection, symptomatic radiographic osteoarthritis sat in 27% of operated knees versus 10% of unoperated references — RR 2.6 (1.3–6.1) — with radiographic-OA risk concentrating in total resection, obesity (BMI ≥30), degenerative tears, intraoperative cartilage damage and lateral trims [4]; the surgery itself booked five-year osteophyte progression at OR 2.86 (1.16–6.21) against sham [2]. But the column the fear-script blames — mileage — is the column the evidence acquits: recreational runners hold hip/knee OA at 3.5% against 10.2% in sedentary controls across 125,810 people [12], pooling to an arthroplasty odds ratio of 0.46 (0.30–0.71) [13], and the trimmed knee's own randomized decade ended with the exercise-track knees at 20% radiographic OA against the surgery track's 23% [3] — no structural premium paid for the active life. And the loading penalty running actually repeats is strength-priced, not trim-priced: 105 pain-free trim patients walked with larger knee-adduction moments than 47 controls even after accounting for body weight [5] — but in the 102-patient sequel, the penalty lived in the strength-deficient subgroup; normal-strength trim patients loaded closest to controls [6]. The expectations file finishes the verdict: 41% of 185 runners were back at pre-op frequency at one year — with lower BMI and higher baseline frequency the only significant predictors of the at-least-twice-weekly return, and medial-versus-lateral worth nothing [10]; at five years, 60% of 288 Danes were back at their sport, only 42% of those at full tilt, persistent knee problems the main stated reason for both shortfall types [11]. The columns that decide this door are all modifiable: the leg, the scale, the ladder [4][6][10].

The structural column: the wear gradient's real predictors — resection extent, tear type, weight, not miles

Start with the file the fear script never read. Englund and Lohmander examined 317 patients fifteen to twenty-two years after meniscal resection — no cruciate injuries, 68 unoperated references from national population records — and found symptomatic radiographic OA (KL ≥2) in 27% of operated knees versus 10% of controls, relative risk 2.6 (1.3–6.1) [4]. Read the multivariate radiographic-OA columns, because they are the whole argument: total meniscectomy outranked partial, BMI ≥30 outranked normal weight, degenerative tears outranked longitudinal ones, visible cartilage changes at surgery outranked clean joints, and lateral resections outranked medial [4]. Two honesties price that list. This is an older, mixed cohort — the total meniscectomies of a surgical era that mostly ended — so the modern partial trim's baseline sits below it; and none of the columns is mileage. Nobody in that model wore out because they ran; they wore out because of how much was taken, what the tear was, what the cartilage already looked like, and what they weighed — four columns fixed before the first post-op run, two of them (weight, and the leg you bring to the scale) modifiable forever. The surgery's own structural cost is booked separately — FIDELITY's placebo-controlled five-year MRI ran osteophyte progression at OR 2.86 (1.16–6.21) against sham surgery [2] — and the decade file closes the loop the fear script predicts: OMEX randomized 140 patients to exercise therapy or the trim, and at ten years radiographic OA sat at 23% of the surgery arm against 20% of the exercise arm, statistically indistinguishable, both arms improved [3]. The knee that spent its decade training did not pay for it structurally. The tear file owns the should-they-cut argument; this column only re-prices what the cut already cost.

The intact-knee verdict, and why it transfers — with its asterisks

The general question — does running ruin knees — was settled in this library's intact-knee verdict, and the trimmed-knee reader needs to know exactly how much of that verdict survives the snip. The numbers: Alentorn-Geli's meta-analysis pooled 25 studies and 125,810 people — hip/knee OA at 3.5% in recreational runners versus 10.2% in sedentary controls and 13.3% in competitive runners, the recreational odds ratio 0.86 (0.69–1.07) [12]; Timmins' independent meta pooled the hardest endpoint available — OA-related arthroplasty at OR 0.46 (0.30–0.71, I²=0%) among runners, with diagnostic-OA findings mixed and honestly priced as such [13]; and Horga's marathon MRIs watched 82 enrolled novices' knees (71 completing training and race) — subchondral bone-marrow edema in the tibial condyles improving (P=0.011), the only cartilage score rising a lateral patella one, without symptoms (three soft-tissue scores — semimembranosus tendon, iliotibial band, prepatellar bursa — rose with it), and the improvements sustained and extended six months later [14][15]. Now the asterisks, because this door is built on them: none of those files studied trimmed knees. They acquit mileage on the intact joint; they do not license ignoring the trim. What they do — and it is decisive — is remove "running" itself from the list of things that ruin knees, which collapses the fear script onto its last leg: the trim changes the knee, so maybe running changes the trimmed knee differently. That question has exactly one direct file, and it is not structural: Sayegh's runners improved their KOOS pain, sport-function and physical-health scores at one and two years [10]. The runners did not wear out; the base rate is a return-rate problem, not a wreckage problem.

The loading column: the adduction-moment penalty is strength-priced

This is the door's center of gravity, because it is where the trimmed knee mechanically differs — and where the difference turns out to be a training variable. Sturnieks' Perth group put 105 pain-free meniscectomy patients and 47 controls through three-dimensional gait analysis: spatiotemporal parameters and knee kinematics comparable to controls — but significantly larger knee-adduction moments over stance, even after accounting for the patients' greater body weight — the frontal-plane load that concentrates stress on the medial tibiofemoral compartment, which the authors priced as a plausible contributor to the knee's post-surgical OA risk [5]. Then came the sequel that reframes it: 102 trim patients and 42 controls, split by strength testing into weak and normal subgroups — and the elevated adduction moments lived in the weak subgroup, whose average and peak frontal-plane loads exceeded both controls and the normal-strength patients; the normal-strength trim patients loaded closest to controls (a residual early-stance peak excepted) [6]. The authors' conclusion is the file's thesis in one sentence: achieving normal lower-limb strength after the trim appears important to resuming normal frontal-plane loading [6]. Put it against Ericsson's four-year audit — the operated leg still weaker in knee extension (P≤0.004) with relative quadriceps strength tracking pain, function and quality of life at r=0.4–0.6 [7] — and the mechanism column assembles: the trim slightly changes the joint's geometry [2][5], but the load that geometry actually receives is written by the muscle that crosses it — and that muscle is trainable years late: four months of functional training started four years post-op still bought back one-leg hop, hamstring strength and quadriceps endurance [8]. The muscle is the joint's real shock absorber; the meniscus you lost made that substitution non-optional, and every additional running stride is another invoice the quad pays or the cartilage does.

The cartilage column: the remaining shock absorber's banking hours

The structural fear assumes cartilage is a finite resource that spends down with every footstrike. The trimmed knee's own tissue file says otherwise — it behaves like a bank account with actual banking hours. Thirty post-meniscectomy patients walked into a four-month exercise study and were grouped by self-reported change in their activity: those who increased it gained glycosaminoglycan content in the posterior, load-bearing cartilage (P=0.004), those whose activity fell lost GAG in the medial posterior compartment (P=0.03), and the unchanged stayed flat [9]. The dGEMRIC index is the cartilage's own statement: after the trim, deposits still post on training weeks and withdrawals still post on couch weeks [9]. Marathon MRI closes the loop from the intact-knee side — novice marathoners' condyle bone-marrow lesions improved through training and held at six months [14][15] — and OMEX's decade holds it from the trimmed side: exercise-track knees at 20% radiographic OA, surgery-track at 23%, both improved [3]. The honest ceiling: nothing here re-grows meniscus — the structural hole is permanent [2] — and the GAG column is tissue quality, not a structural cure. What the column kills is the direction of the fear: the trimmed knee's remaining cartilage is use-dependent tissue that degrades faster in the couch's ledger than the runner's [9].

The expectations column: the run-return base rates, honestly

The door's most mis-sold number is the timeline, and the direct file is Sayegh's: 185 patients who ran at least twice a week before arthroscopic partial meniscectomy — at one year, 41% were running at the same or greater frequency, 50% at least twice weekly; at two years, 38% and 47%; and KOOS pain, sport-function and physical-health scores improved at both marks [10]. The predictors were surgical-schedule agnostic: lower BMI (P=.0248) and greater baseline running frequency (P=.0300) decided who returned to at least twice-weekly running — medial versus lateral compartment and Outerbridge cartilage grade predicted nothing [10]. Giladi's five-year Danish cohort prices the ceiling: of 288 patients, 172 (60%, 54–65%) had returned to their sport at pre-injury level — but only 42% of those with full participation and performance, persistent knee problems cited by 60% as the reason for reduced participation and 70% as the reason for not returning at all — while the returners improved 10.1 KOOS4 points (5.7–14.4) more than the non-returners [11]. The pro file prices what full-time rehab buys: 168 professional baseball players returned at 80% (76% at the same or higher level, median 42 days among same-season returners) [16]. And the consensus replaces every calendar in the paragraph: return-to-sport decisions are time-based and criterion-based — patient-reported outcomes paired with performance tests [17]. Read the columns together and the honest expectation lands: 4-in-10 at pre-op frequency at one year is the base rate, not your ceiling; the returners out-improve the non-returners at five years [11]; and the variables that move your number — body weight and the leg you bring — are the two the program below trains first [4][6][10].

The counter-file: where caution wins, honestly

Five honesties keep this door from becoming a pep talk. The baseline is not uniform: Englund's gradient means the total-meniscectomy, lateral-trim, degenerative-tear, damaged-cartilage and BMI ≥30 subgroups start structurally behind and should price their ladders longer [4] — Sayegh's medial-versus-lateral null [10] is about return rates, not about long-term wear, and the Lund cohort is the file that owns wear. Effusion is information: a knee that swells after every run is not "being pushed" — it is rejecting the current dose, and the consensus answer is volume reduction, not bravado [17]. The intact-knee verdict is associative: runners may be a selected population (healthier, lighter, uninjured enough to keep running) — the asterisk is carried honestly by the meta-analysts themselves [12][13], which is why this file leans on the trimmed-knee-specific columns [3][4][5][6][9][10] wherever they exist. Nothing re-grows meniscus: the trim's structural invoice is permanent [2]; every gain priced here is strength, load distribution, tissue quality and symptoms — which is exactly why the modifiable columns deserve the effort. And the runner's own file is level III: Sayegh's cohort is retrospective [10] — the base rates are the best direct file this door has, priced as what they are.

The program: the run-back ladder

The shape the files actually support:

  1. Earn the first run in the gym, not on the road. The loading column says the adduction penalty belongs to the weak quad [5][6] — so the ladder starts under the leg press and the squat rack (the squat-depth file owns the geometry), not at a starting line.
  2. Load single-leg, both legs, forever. The deficit is inter-limb [7]; bilateral-only programs let the strong leg hide the weak one. One-leg rising, step-downs, single-leg press — tracked side by side, dated.
  3. Buy supervision for the first block if you can. The surgical door's meta-analysis priced supervised physiotherapy plus home exercise at 10.3 function points over home exercise alone (six of eighteen trials pooled, moderate-to-high risk of bias, per the review itself) [1] — the run ladder inherits the same delivery-system verdict.
  4. Run-walk before run, criteria before pace. The consensus rule is time and criteria — PROMs paired with performance tests [17]; a run-walk ladder (the runners-knee file owns the overload reference) with swelling — not the calendar — setting the pace.
  5. Let the scale do its share. BMI appears in both predictive files — Englund's fifteen-year wear gradient [4] and Sayegh's return rates [10] — the one variable that improves two columns at once.
  6. Price the second half with the OA file. The trimmed knee is a decades program [3][4]; the osteoarthritis pair owns the long-game program once the return is made.
  7. Log symmetry as the program's KPI. Inter-limb extension strength and hop distance, dated — the two numbers the entire evidence file says price this knee's future [6][7][17].

The fences, in order

  1. The red-flag fence. True locking, unexplained heat and swelling, giving way, calf pain, fevers, wound drainage — surgeon first, program later.
  2. The repair fence. Stitch, not trim? Different protocol, protection restrictions, surgeon's-orders strict — the surgical door carries it in full.
  3. The effusion fence. Recurrent swelling after runs means the dose is wrong — reduce, don't push through [17].
  4. The steep-baseline fence. Total meniscectomy, lateral trim, degenerative tear, damaged cartilage, BMI ≥30 [4] — price the ladder longer, not the future darker.
  5. The surgeon-protocol fence. This file prices the evidence; your operative note and post-op sheet own the calendar — conflicts resolve in their favor, always.
  6. The expectations fence. 41% at one year, 42%-of-60% at full tilt at five [10][11] — the ceiling is real, and it is higher than the couch's, whose every structural column is worse [3][9].

The Brazilian anchors

The Brazilian reader owns one of this door's best program files. The Londrina meta-analysis (Dias et al., Universidade Estadual de Londrina): 18 randomised trials, 6 pooled — supervised physiotherapy plus home exercise beat home exercise alone by 10.3 function points (1.3–19.3, P=0.02) and 9.1 degrees of flexion (3.7–14.5, P=0.0009) after the trim, with the review itself flagging moderate-to-high risk of bias [1]. It is the practical verdict holding the whole ladder up: supervision buys points — and the first block of the run-return is exactly the block where those points are most expensive.

So what do you do in practice? The practical file

Seven rules, all sourced from the files above:

  1. Re-read the wear gradient before your first run — resection extent, tear type, cartilage state and body weight priced the fifteen-year knee, not miles [4]; nothing you do on pavement changes those columns, but two of them answer to the gym and the kitchen.
  2. Treat the quad as the knee's new shock absorber — normal strength, normal frontal-plane loads [5][6]; the adduction penalty is a strength line-item, not a surgical sentence.
  3. Build the leg before you build the mileage — single-leg, supervised where possible [1], progressively loaded [7][8]; four months of gym buys the first eight weeks of road.
  4. Walk-run the ladder on criteria, not anniversaries — PROMs plus performance tests [17], swelling as the governor [17].
  5. Move the two predictors you own — lower BMI and higher baseline frequency decided the twice-weekly returners [10]; both are trainable inputs.
  6. Expect 4-in-10, plan for better — the base rate is Sayegh's, the ceiling is Giladi's, and the returners out-improved the non-returners at five years [10][11].
  7. Log both legs, dated — the symmetry record is the artifact this entire evidence file reads [6][7][17].

How RightRep fits into this

The run-return door's currency is the dated, per-leg, per-run record — the artifact every trial in this file measured and no trim patient is ever handed:

  • The symmetry ledger. Left-versus-right load, reps and sets on a single timeline — the inter-limb strength line the adduction-moment file says prices this knee's loading [6][7], made visible session by session.
  • The run ladder on rails. Run-walk ratios, distance and pace progression per session — the criterion-based return the consensus mandates [17], assembled as a side effect of training.
  • The effusion diary. Swelling, ache and next-morning state against yesterday's dose — the "is the volume right" question answered from the log, not from memory [17].
  • The rep-counting that catches compensation. The same AI that counts and scores every repetition is the one that notices the strong leg quietly absorbing the weak leg's share — the failure mode of every bilateral program after unilateral surgery.
  • The decade artifact. The trimmed knee is a ten-year program [3] — the streak, the gaps and the trajectory are how "managed intelligently" stops being a promise and becomes a log.

The final tally

  • The structural column: Englund 15–22y — symptomatic radiographic OA 27% vs 10%, RR 2.6 (1.3–6.1); radiographic-OA predictors: total resection, BMI ≥30, degenerative tear, cartilage changes, lateral trim [4]; FIDELITY 5y vs sham — osteophytes OR 2.86 (1.16–6.21) [2]; OMEX 10y — radiographic OA 20% exercise vs 23% surgery, both improved [3].
  • The intact-knee verdict (transfers with asterisks): Alentorn-Geli — 125,810 people, OA 3.5% recreational vs 10.2% sedentary vs 13.3% competitive, recreational OR 0.86 (0.69–1.07) [12]; Timmins — arthroplasty OR 0.46 (0.30–0.71, I²=0%), diagnostic findings mixed [13]; Horga — marathon condyle BML improved (P=0.011), sustained at 6 months; lateral patella cartilage the only cartilage score rising, asymptomatic (tendon/ITB/bursa soft-tissue scores rose with it) [14][15].
  • The loading column: Sturnieks — 105 pain-free APM vs 47 controls, larger knee-adduction moments adjusted for weight [5]; weak subgroup carries the penalty, normal strength loads like controls [6]; Ericsson — 4y extension deficit P≤0.004, quad strength ↔ pain/function/QoL r=0.4–0.6 [7]; trainable 4y late — hop 8 vs 2 cm [8].
  • The cartilage column: dGEMRIC — GAG up with activity (P=0.004), down with inactivity (P=0.03) [9].
  • The expectations column: Sayegh — 185 runners, 41% same-or-greater frequency at 1y, 50% ≥2×/week, 38%/47% at 2y; BMI (P=.0248) and baseline frequency (P=.0300) predict the ≥2×/week return; medial-vs-lateral and Outerbridge null [10]; Giladi — 288 at 5y, 60% returned, 42%-of-those full tilt, 60%/70% persistent-problem citations, RTS +10.1 KOOS4 (5.7–14.4) [11]; pro baseball 80%, median 42 days among same-season returners [16]; consensus — time AND criteria [17].
  • The re-pricing spine (carried from the surgical door): IPD meta, 605 patients — pain edge 2.2–2.5 points at 24 months, no function edge, no benefiting subgroup [18]; supervised PT +10.3 function points (1.3–19.3, P=0.02; 6 of 18 trials pooled, moderate-to-high RoB) over home exercise alone [1].
  • The Brazilian anchor: the Londrina meta-analysis [1].
  • The fences: red flags, repair-vs-trim, effusion, steep baseline (total/lateral/degenerative/BMI ≥30), surgeon protocol, expectations — in that order.

Run the knee you built back, not the one you fear — log both legs dated, let swelling set the pace, and let the record, not the calendar, open the next gate, at rightrep.app.

This post was written by the RightRep AI Assistant — the same AI that counts and scores your repetitions at rightrep.app.

Sources

  1. Dias JM, Mazuquin BF, Mostagi FQ, et al. The effectiveness of postoperative physical therapy treatment in patients who have undergone arthroscopic partial meniscectomy: systematic review with meta-analysis. J Orthop Sports Phys Ther, 2013;43(8):560–576. pubmed.ncbi.nlm.nih.gov
  2. Sillanpää N, Iivanainen M, Turkiewicz A, et al. Effect of arthroscopic partial meniscectomy on structural degeneration of the knee — a 5-year MRI-based follow-up of the placebo-surgery controlled FIDELITY (Finnish Degenerative Meniscus Lesion Study) trial. Osteoarthritis Cartilage, 2025;33(2):276–282. pubmed.ncbi.nlm.nih.gov
  3. Berg B, Roos EM, Englund M, et al. Arthroscopic partial meniscectomy versus exercise therapy for degenerative meniscal tears: 10-year follow-up of the OMEX randomised controlled trial. Br J Sports Med, 2025;59(2):91–98. pubmed.ncbi.nlm.nih.gov
  4. Englund M, Lohmander LS. Risk factors for symptomatic knee osteoarthritis fifteen to twenty-two years after meniscectomy. Arthritis Rheum, 2004;50(9):2811–2819. pubmed.ncbi.nlm.nih.gov
  5. Sturnieks DL, Besier TF, Mills PM, et al. Knee joint biomechanics following arthroscopic partial meniscectomy. J Orthop Res, 2008;26(8):1075–1080. pubmed.ncbi.nlm.nih.gov
  6. Sturnieks DL, Besier TF, Hamer PW, et al. Knee strength and knee adduction moments following arthroscopic partial meniscectomy. Med Sci Sports Exerc, 2008;40(6):991–997. pubmed.ncbi.nlm.nih.gov
  7. Ericsson YB, Roos EM, Dahlberg L. Muscle strength, functional performance, and self-reported outcomes four years after arthroscopic partial meniscectomy in middle-aged patients. Arthritis Rheum, 2006;55(6):946–952. pubmed.ncbi.nlm.nih.gov
  8. Ericsson YB, Dahlberg LE, Roos EM. Effects of functional exercise training on performance and muscle strength after meniscectomy: a randomized trial. Scand J Med Sci Sports, 2009;19(2):156–165. pubmed.ncbi.nlm.nih.gov
  9. Hawezi ZK, Lammentausta E, Svensson J, et al. Regional dGEMRIC analysis in patients at risk of osteoarthritis provides additional information about activity related changes in cartilage structure. Acta Radiol, 2016;57(4):468–474. pubmed.ncbi.nlm.nih.gov
  10. Sayegh ET, Dib AG, Lowenstein NA, et al. Up to One-Half of Runners Return to Running One Year After Arthroscopic Partial Meniscectomy. Arthrosc Sports Med Rehabil, 2022;4(4):e1505–e1511. pubmed.ncbi.nlm.nih.gov
  11. Giladi JO, Holsgaard-Larsen A, Varnum C, Thorlund JB. Sports Participation and Performance 5 Years After Arthroscopic Partial Meniscectomy: A Retrospective Cohort Study of 288 Patients. J Orthop Sports Phys Ther, 2022;52(4):224–232. pubmed.ncbi.nlm.nih.gov
  12. Alentorn-Geli E, Samuelsson K, Musahl V, et al. The Association of Recreational and Competitive Running With Hip and Knee Osteoarthritis: A Systematic Review and Meta-analysis. J Orthop Sports Phys Ther, 2017;47(6):373–390. pubmed.ncbi.nlm.nih.gov
  13. Timmins KA, Leech RD, Batt ME, Edwards KL. Running and Knee Osteoarthritis: A Systematic Review and Meta-analysis. Am J Sports Med, 2017;45(6):1447–1457. pubmed.ncbi.nlm.nih.gov
  14. Horga LM, Henckel J, Fotiadou A, et al. Can marathon running improve knee damage of middle-aged adults? A prospective cohort study. BMJ Open Sport Exerc Med, 2019;5(1):e000586. pubmed.ncbi.nlm.nih.gov
  15. Horga LM, Henckel J, Fotiadou A, et al. Is the immediate effect of marathon running on novice runners' knee joints sustained within 6 months after the run? A follow-up 3.0 T MRI study. Skeletal Radiol, 2020;49(8):1221–1229. pubmed.ncbi.nlm.nih.gov
  16. Erickson BJ, Chalmers PN, D'Angelo J, et al. Performance and Return to Sports After Meniscectomy in Professional Baseball Players. Am J Sports Med, 2022;50(4):1006–1012. pubmed.ncbi.nlm.nih.gov
  17. Prill R, Ma CB, Wong SE, et al. The formal EU-US Meniscus Rehabilitation 2024 consensus: An ESSKA-AOSSM-AASPT initiative. Part II — Prevention, non-operative treatment and return to sport. Knee Surg Sports Traumatol Arthrosc, 2025;33(8):3014–3024. pubmed.ncbi.nlm.nih.gov
  18. Wijn SRW, Hannink G, Østerås H, et al. Arthroscopic partial meniscectomy vs non-surgical or sham treatment in patients with MRI-confirmed degenerative meniscus tears: a systematic review and meta-analysis with individual participant data from 605 randomised patients. Osteoarthritis Cartilage, 2023;31(5):557–566. pubmed.ncbi.nlm.nih.gov