Returning to Bench Press After Rotator Cuff Repair

Broader scientific context

What needs to be considered before returning to loaded pressing?

Returning to bench pressing after rotator cuff repair involves recovery, rehabilitation, and gradual exposure to the intended task. Decisions depend on the individual repair and the treating team’s guidance. Equipment cannot provide medical clearance.

Returning to the bench press requires rebuilding shoulder strength, endurance, movement control and confidence through rehabilitation and progressive loading. The later stages should prepare the athlete for the intended grip, range, tempo and support surface.

Tear size, tendon quality, repair configuration, associated procedures, symptoms, motion and strength all affect progression. Coordinate each stage with the surgeon and rehabilitation clinician, using their restrictions and the response to previous loading.

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Key Takeaways

  • Postoperative timelines vary because repairs vary. Progress should be coordinated with the surgeon and rehabilitation clinician and based on clinical milestones as well as time.
  • Systematic reviews generally find similar longer-term outcomes between earlier and delayed motion strategies, but exercise dosage and return-to-sport criteria remain incompletely standardized.
  • Scapular substitution may improve without fully normalizing after repair, so restoring cuff tissue continuity does not guarantee restoration of the entire shoulder-girdle movement strategy.
  • Returning to bench pressing requires graded exposure to the actual grip, range, load, tempo, fatigue, torso position and surface, not merely passing a generic shoulder-strength test.
  • The Launch Pad research examined pressing performance in nonclinical male samples; postoperative use belongs within the treating team’s plan.

Return begins with the repair-specific plan. The 2025 AAOS clinical practice guideline organizes current evidence for rotator-cuff management, but it does not provide a bench-press clearance test or a universal week for heavy pressing [1]. The surgeon and rehabilitation clinician therefore define the medical constraints; training decisions begin inside those constraints.

Surgical Repair Begins a New Loading Process

The rotator cuff is a tendon-muscle system that contributes to humeral movement and helps maintain the humeral head relative to the glenoid. A repair reconnects torn tendon to bone, but the construct and healing interface have limited early load tolerance. The repaired tissue then passes through biological phases that do not progress at the same rate as pain relief, perceived confidence or general fitness.

Tear size and chronicity, fatty infiltration, muscle atrophy, tendon quality, age, smoking status, diabetes, repair tension and postoperative adherence can all influence outcome. Re-tear does not have one universal rate because the patient populations and tears studied differ markedly. Conversely, persistent weakness or altered movement does not by itself prove structural failure. Imaging, symptoms, clinical testing and function have to be interpreted together [2].

Clinical boundary

A prior 1-RM is not a rehabilitation milestone. Heavy pressing should follow tissue protection, restored motion, progressive strength and task-specific preparation. The surgeon’s restrictions and the individual’s response take priority over generalized timelines.

What Rehabilitation Research Establishes

Matlak and colleagues reviewed 22 level I or II studies published from 2003 through 2019 [3]. Early and delayed mobilization produced broadly similar outcomes, while evidence supported supervised therapy and identified gaps in exercise prescription, particularly for subscapularis repair.

Mazuquin and colleagues likewise found that earlier rehabilitation could improve some early range-of-motion measures without a clear long-term functional or repair-integrity disadvantage in the included trials [4].

A newer meta-analysis of nine randomized trials and 830 patients found no clinically meaningful longer-term functional difference between early and delayed approaches [5].

Mazuquin et al. · 2021 · systematic review

Earlier motion showed its largest flexion differences early

The review included 20 randomized trials and 1,841 patients. These pooled differences compare shoulder flexion after early versus delayed rehabilitation.

6 weeks+7.36°

95% CI 2.66 to 12.06°

3 months+8.45°

95% CI 3.43 to 13.47°

6 months+3.57°

95% CI 0.81 to 6.32°

1 year+1.42°

95% CI 0.21 to 2.64°

Mean difference in degrees · early minus delayed

Dot = pooled mean difference. Line = 95% confidence interval. Each row is a follow-up comparison across contributing trials, not the motion gained by one patient.

Positive values favor earlier rehabilitation for shoulder flexion. Most pain and function comparisons showed no statistically significant difference; protocols varied and many trials had high or unclear risk of bias. These ROM findings are not bench-press clearance criteria [4].
What the reviews mean

Protocol labels are less useful than the actual exposure

What the studies found

Across trial groups, earlier motion often improved early ROM, while longer-term pain, function and healing outcomes were commonly similar. Protocols, tear sizes and definitions varied.

What that means in practice

There is no evidence-based reason to race every patient or immobilize every patient. Progression should respect the repair and use criteria the patient can demonstrate.

These trials address early postoperative rehabilitation. Readiness for deep eccentrics, wider grips, higher pressing volume and near-failure work requires later, task-specific assessment.

Time remains relevant because healing cannot be willed forward, but time is not sufficient. Later-stage decisions commonly consider pain and irritability, active and passive ROM, strength, endurance, scapular control, confidence, quality of movement and response to the previous session. The exact thresholds depend on the procedure and clinician.

2026 cohort update · return to sport

Recovery continued beyond the first year

General return-to-sport data describe uncertainty; they do not set a bench-press deadline.

Matter and colleagues followed 725 eligible patients across 19 centers after arthroscopic repair. Full return to sport was reported by 49.5% at 12 months and 57.4% at 24 months; 43.8% returned to the same main preinjury sport. Traumatic etiology, motivation and activity at six months were favorable prognostic factors. This was a general return-to-sport cohort, with performance assessed beyond initial clearance [6].

Matter et al. · 2026 · multicentre cohort

Return to sport continued beyond the first year

Full return to sport

12 months49.5 %
24 months57.4 %

% · reported percentage · scale starts at zero

725 eligible patients across 19 centers. Full return was defined as a self-rated sport-performance score of 9–10 out of 10. The outcome covers sport generally, not bench-press readiness. Study [6].
Two follow-up assessments from the same cohort. The bars do not indicate an individual athlete’s probability of clearance or establish a rehabilitation deadline.

Shoulder-Girdle Capacity Recovers on More Than One Timeline

Baumgarten and colleagues found that visible scapular substitution decreased after repair but remained present in some patients. Greater substitution was associated with worse patient-reported and objective outcomes [7]. Assess scapular, thoracic and humeral movement together during rehabilitation.

Baumgarten et al. · 2018 · observational findings

Movement strategy changed during rehabilitation

Observed scapular substitution

Initial reported observation82 %
One-year follow-up35 %

% · reported percentage · scale starts at zero

Therapist-observed substitution decreased through the first postoperative year and was associated with poorer outcomes [7].
Reported percentages of patients with observed scapular substitution.

Mercurio and colleagues likewise documented persistent scapular dyskinesis after arthroscopic repair [8]. Scapular movement is three-dimensional, varies across tasks and is affected by pain, stiffness, strength and motor strategy. Residual asymmetry should be interpreted in that wider clinical context.

During bench pressing, the posterior torso contacts the support while both hands share a bar. Grip width and scapular pose can change modeled glenohumeral and acromioclavicular forces in bench-specific studies [9][10]. The modeled-loading study tested uninjured experienced athletes under a light bar; it is design-informing evidence, not a postoperative protocol.

Understand the mechanism →Scapular Motion During the Bench Press

Return to Pressing Is a New Exposure

“Pressing” is not one load. A wall push-up, incline push-up, machine chest press, neutral-grip dumbbell press and competition-style barbell press differ in stability, freedom of movement, shoulder angle, depth and failure consequences. An athlete cleared for one is not automatically prepared for all of them.

The barbell bench press is particularly specific. Both hands are coupled to the bar; the torso meets a fixed surface; the humerus enters extension and horizontal abduction at the bottom; and the athlete may deliberately retract the scapulae and arch the thoracic spine. Grip width changes joint moments and modeled shoulder forces [9][10]. Fatigue can change bar kinematics and technique [11]. A return plan therefore has to control not just external load but range, tempo, proximity to failure and accumulated weekly exposure.

Pressing-task map · define the exposure

The same load can still be a different task

Implement + grip

Record whether the hands are coupled by a bar, the grip width and the permitted movement.

Surface + range

Record torso support, bench setting, touch point and the intended travel window.

Dose + execution

Record load, sets, repetitions, tempo, proximity to failure and weekly exposure.

Use these variables to describe each clinician-approved pressing exposure; they are not a mandatory exercise sequence [9][10][11].

The most defensible principle is graded specificity: begin with an approved task the athlete can perform and recover from, then make it progressively resemble the target task. If the target is a paused barbell bench press, the plan eventually has to reintroduce the bar, planned support surface, grip, touch point, pause and performance intent.

A Criteria-Led Return-to-Bench Progression

AMM Research · Coordinating the return to pressing

Permission, exposure and response are separate records

A coach stands beside an athlete during a bench press.

Treating-team boundaries

Repair-specific permission and limits.

Record the planned exposure

Exercise · range · load · repetitions.

Record the response

During the session · later · the following day.

Review the response before changing the dose. Permission, planned exposure and observed response remain separate records.

Illustrative supervised bench-press exposure. The treating team sets the exercise, timing and progression for the individual repair.

Article progression discussion; AAOS (2025), Management of Rotator Cuff Injuries. Guideline.

Photo source: iStock, via Vitónica. Image enhanced for presentation.
Progression framework · four coordinated decisions

Progress only when the next exposure is both permitted and tolerated

Clinical permission

Repair-specific restrictions, healing status, motion, symptoms and clinician-defined boundaries.

General capacity

Shoulder and scapular control, pressing tolerance and recovery across ordinary strengthening.

Bench exposure

Stable setup, comfortable range, low load, controlled tempo and a conservative stop rule.

Performance rebuild

Range, load, velocity intent and fatigue return one variable at a time.

After each stage, review the response with the treating team before advancing the next exposure.

Coordinate with the treating team

What to establish, control and monitor

Examples of information to coordinate with the treating team. These are not universal clearance thresholds.

01 · Begin pressing pattern

What to establish
Procedure-specific clearance; tolerable active motion and baseline control
Training variable to control
Exercise choice, range, tempo, assistance
Reason to pause or regress
Unexpected pain, guarding, swelling or loss of function

02 · Add external load

What to establish
Repeatable technique and acceptable response to prior stage
Training variable to control
Absolute load, sets, frequency, RIR
Reason to pause or regress
Symptoms or weakness that do not settle as expected

03 · Add barbell specificity

What to establish
Ability to tolerate coupled-hand pressing and planned support
Training variable to control
Grip, touch point, pause, depth, surface
Reason to pause or regress
Uncontrolled bottom position or loss of upper-back setup

04 · Build performance

What to establish
Consistent recovery under submaximal exposure
Training variable to control
Intensity, volume, velocity loss, fatigue
Reason to pause or regress
Declining mechanics, persistent soreness or clinician concern
Each decision remains individualized to the repair, clinical examination and observed response.

Simple records improve the process: exercise, surface, grip, range, load, repetitions, RIR, symptoms during, symptoms later and next-day response. That record is more useful than relying on memory or assuming that one pain-free session represents full readiness.

How to interpret response trends

Hold the exercise, surface and range steady while tracking tolerance, execution and recovery across sessions. When the response is stable, the treating team can advance one major variable: range, load, volume or proximity to failure. Escalating pain, weakness, guarding or next-day loss of function calls for reassessment before progression.

Where Equipment Fits in the Return-to-Pressing Process

A return-to-bench plan should specify the surface because surfaces can change torso support, effective range, stability and the athlete’s setup. If an athlete intends to train on a particular bench or pad, late-stage exposure should include it so the return is specific. A change in surface should be treated like a change in range or implement: reduce other variables enough to learn the response.

Independent bench research shows that grip, scapular pose and lateral bar forces change the mechanical task [12][10]. The acute Launch Pad study shows that changing the tested support condition changed pectoralis sEMG, velocity and vertical bar displacement in 10 resistance-trained men [13]. The four- and eight-week trials found greater performance improvement in Launch Pad groups under their supervised protocols [14][15].

Equipment evidence · nonclinical male samples

Strength gains in two separate training studies

Mean changes in bench-press 1RM, with standard deviations printed below the bars.

Four weeks · 1RM change

Conventional bench11.1 kg

SD 2.4 kg

Launch Pad18.4 kg

SD 4.3 kg

kg · mean; SD printed below each bar · scale starts at zero

42 intermediate-trained men; 12 sessions. Both groups used the same eccentric-overload program. Between-group difference 7.3 kg; p < .001. Study [14].

Eight weeks · 1RM change

Conventional bench9.7 kg

SD 3.4 kg

Launch Pad19.4 kg

SD 4.3 kg

kg · mean; SD printed below each bar · scale starts at zero

30 male collegiate football players; 24 sessions. Reported between-group p < .001. Study [15].
Both panels use a 0–30 kg scale and report separate training studies.

For an athlete returning to The Launch Pad®, introduce the surface within the clinician-approved progression. Its torso support and shoulder clearance can change setup and usable range, so reassess load and depth when the surface changes.

Explore the equipment implication →Shoulder Mechanics & Bench Press Surface Design
Evidence maturity

Preparing for a Return to Pressing

Protect the repair, restore motion and capacity, and progress toward the intended pressing task using criteria tailored to the procedure, patient and treating team. Time and the response to each loading stage both inform progression. Validated return-to-heavy-bench criteria and standardized exercise dosages remain limited.

Medical notice: This article is educational and cannot provide surgical clearance, diagnosis or an individualized rehabilitation plan. Follow the restrictions and progression established by your surgeon and rehabilitation clinician. Seek prompt medical evaluation for new trauma, sudden weakness, loss of motion or escalating symptoms.

References

  1. American Academy of Orthopaedic Surgeons. (2025). Management of rotator cuff injuries: Evidence-based clinical practice guideline. Official guideline. ↩
  2. Mandaleson A. (2021). Re-tears after rotator cuff repair: Current concepts review. Journal of Clinical Orthopaedics and Trauma, 19, 168–174. doi:10.1016/j.jcot.2021.05.019. ↩
  3. Matlak S, Andrews A, Looney A, Tepper KB. (2021). Postoperative rehabilitation of rotator cuff repair: A systematic review. Sports Medicine and Arthroscopy Review, 29(2), 119–129. doi:10.1097/JSA.0000000000000310. ↩
  4. Mazuquin B, Moffatt M, Gill P, Selfe J, Rees J, Drew S, et al. (2021). Effectiveness of early versus delayed rehabilitation following rotator cuff repair: Systematic review and meta-analyses. PLOS ONE, 16(5), e0252137. doi:10.1371/journal.pone.0252137. ↩
  5. Chen Y, Meng H, Li Y, Zong H, Yu H, Liu H, et al. (2024). The effect of rehabilitation time on functional recovery after arthroscopic rotator cuff repair: A systematic review and meta-analysis. PeerJ, 12, e17395. doi:10.7717/peerj.17395. ↩
  6. Matter M, Audigé L, Stojanov T, Mueller A, Zumstein MA, Hayoz A, et al. (2026). Return to sport after arthroscopic rotator cuff repair: Epidemiology and prognostic factors in a Swiss multicentre cohort. British Journal of Sports Medicine, 60(2), 116–124. doi:10.1136/bjsports-2025-110358. ↩
  7. Baumgarten KM, Osborn R, Schweinle WE III, Zens MJ, Helsper EA. (2018). Scapular substitution after rotator cuff repair correlates with postoperative patient outcome. International Journal of Sports Physical Therapy, 13(4), 687–699. doi:10.26603/ijspt20180687. ↩
  8. Mercurio M, Cofano E, Mancuso C, Paola L, Imbrogno A, Mantovani M, et al. (2025). Persistent scapular dyskinesis after arthroscopic rotator cuff repair: A prospective study. JSES International, 10(2), 101420. doi:10.1016/j.jseint.2025.101420. ↩
  9. Larsen S, Gomo O, van den Tillaar R. (2021). A biomechanical analysis of wide, medium, and narrow grip width effects on kinematics, horizontal kinetics, and muscle activity on the sticking region in recreationally trained males during 1-RM bench pressing. Frontiers in Sports and Active Living, 2, 637066. doi:10.3389/fspor.2020.637066. ↩
  10. Noteboom L, Belli I, Hoozemans MJM, Seth A, Veeger HEJ, van der Helm FCT. (2024). Effects of bench press technique variations on musculoskeletal shoulder loads and potential injury risk. Frontiers in Physiology, 15, 1393235. doi:10.3389/fphys.2024.1393235. ↩
  11. Duffey MJ, Challis JH. (2007). Fatigue effects on bar kinematics during the bench press. Journal of Strength and Conditioning Research, 21(2), 556–560. doi:10.1519/R-19885.1. ↩
  12. Mausehund L, Werkhausen A, Bartsch J, Krosshaug T. (2022). Understanding bench press biomechanics—the necessity of measuring lateral barbell forces. Journal of Strength and Conditioning Research, 36(10), 2685–2695. doi:10.1519/JSC.0000000000003948. ↩
  13. Kidwell JA, Yamamoto T, Hetherton KJ, Truneh N, Bright JJ, Blatney AE, et al. (2026). Acute effects of thoracic-spinal elevation via a novel bench press pad on sEMG and barbell kinetics in resistance-trained males. International Journal of Exercise Science, 19(1), 1003. doi:10.70252/IJES2026103. ↩
  14. Goldman P, Taylor J, Yamamoto T, Blatney AE, Sahni TK, Lechner RJ, et al. (2025). Eccentrically overloaded bench press training: Augmenting strength gains via a novel bench press pad. Scientific Journal of Sport and Performance, 4(4), 480–490. doi:10.55860/JCDL3612. ↩
  15. Blatney AE, Kidwell JA, Yamamoto T, Goldman P, Hetherton KJ, Dolezal BA. (2026). Effects of an eight week training regimen with a novel bench press pad compared to a traditional bench on upper body strength and performance in collegiate American football players. Scientific Journal of Sport and Performance, 5(1), 10–21. doi:10.55860/RNUB8627. ↩