Tennis Injuries — Kinetic Chain Rehab in Tel Aviv

What are the most common tennis injuries?

Tennis is a sport with a distinct injury profile. The systematic review by Pluim et al. (Br J Sports Med, 2006 — DOI: 10.1136/bjsm.2005.023184) analysed 119 studies and described a consistent pattern: most injuries occur in the lower extremities, then upper extremities, then trunk.

Abrams et al. (Br J Sports Med, 2012 — DOI: 10.1136/bjsports-2012-091164) added a key clinical distinction: acute injuries (ankle sprains, muscle strains) are more common in the lower extremity, while chronic overuse injuries (lateral epicondylitis in recreational players, rotator cuff pain in elite players) dominate in the upper extremity.

Dines et al. (J Am Acad Orthop Surg, 2015 — DOI: 10.5435/JAAOS-D-13-00148) introduced the framework that guides rehabilitation at Recovery TLV: the kinetic chain. Tennis transmits supraphysiologic forces to the shoulder and elbow hundreds of times per match — and any disturbance in one chain link increases injury risk in the upper segments.

The kinetic chain — how power flows from feet to hand

In a professional serve, kinetic energy is transferred through five linked segments. Weakness in any segment produces compensatory overload above — the most common reason tennis elbow does not resolve with local treatment alone:

Clinical implication: tennis elbow that does not resolve with elbow-only treatment almost always shows weakness in the core, hip, or scapula. True rehabilitation maps the entire chain — not just the painful site.

Injuries by skill level and timing

The Recovery TLV protocol

Red flags

Why does my tennis elbow keep coming back?

Lateral epicondylitis ("tennis elbow") is rarely a problem of the elbow alone. It is the terminal site of the kinetic chain — the place that flags load that should have been absorbed higher up. When the scapula, cuff or core under-deliver, the wrist extensors over-work, and the common extensor origin at the lateral epicondyle pays the bill. That is why a brace and rest alone keep failing: they treat the symptom, not the source.

Tennis elbow is the single most common chronic overuse injury in recreational players (Abrams et al., Br J Sports Med, 2012). Despite the name, modern players develop it more often on the backhand and on mistimed forehands than on a "classic" one-handed backhand. The pathology is a tendinopathy — a failed healing response in the extensor carpi radialis brevis tendon — not an inflammatory "-itis". This distinction matters clinically: anti-inflammatory rest does not rebuild tendon capacity; progressive mechanical load does.

The Recovery TLV approach treats the elbow as the last link, then asks why it is overloaded. Three contributors recur. First, scapular dyskinesis — the shoulder blade does not position the arm well, so the forearm muscles compensate (Leek et al., Int J Sports Phys Ther, 2026, documented this exact chain in a player with a stroke-efficiency analysis). Second, equipment — a grip that is too small, strings strung too tight, or a stiff frame transmits more shock and vibration into the forearm (Le Solliec et al., Sensors, 2024). Third, a sudden spike in playing volume, the classic load-management error.

Treatment is progressive heavy-slow-resistance loading of the wrist extensors — eccentric and isometric work such as the Tyler Twist and reverse wrist curls — combined with scapular and cuff strengthening so the chain stops dumping load onto the elbow. For stubborn cases, dry needling of trigger points and TECAR can reduce pain enough to let the loading programme proceed. Most mild-to-moderate cases respond over 6–12 weeks. For a deeper dive into the elbow itself, see our elbow pain page.

Why does my shoulder only hurt on the serve?

The serve is the most demanding stroke in tennis: it drives the shoulder repeatedly into maximal external rotation and abduction, then decelerates it violently. Pain that appears only at the top of the serve usually points to internal impingement or rotator-cuff/scapular fatigue, not a structural tear. The shoulder is doing too much because the legs, hips and core are doing too little.

Shoulder pain is the dominant complaint of intermediate and elite players (Abrams et al., 2012). The serve transmits supraphysiologic forces to the shoulder hundreds of times per match (Dines et al., JAAOS, 2015; Martin et al., Sports Med Open, 2026). Over years, the dominant shoulder adapts: external rotation increases and internal rotation is lost — a pattern called GIRD (Glenohumeral Internal Rotation Deficit). A degree of GIRD is normal in throwers, but when the loss is large it is associated with internal impingement and labral stress.

Two assessment findings drive the plan. Johansson et al. (Sports Health, 2025, SMASH cohort) showed that eccentric and isometric shoulder-rotation strength and ROM relate to shoulder-injury incidence in adolescent competitive players — so we measure both, not just pain. Ersever et al. (J Tissue Viability, 2025) found that adding core exercises improved rotator-cuff strength, core endurance and supraspinatus structure in tennis players with cuff injuries — direct evidence that the chain, not the cuff in isolation, is the treatment target.

Rehabilitation restores internal-rotation ROM (sleeper stretch, cross-body work), rebuilds posterior-cuff and scapular strength (external rotation, Y-T-W, wall slides, push-up plus), and re-trains the legs and trunk to generate serve power so the arm stops over-contributing. Return-to-serve is staged: shadow serves, then partial-effort, then full. Our shoulder rehab page covers the cuff and scapula in detail.

What about wrist, back and Achilles injuries in tennis?

Tennis loads more than the elbow and shoulder. The modern game's wristy topspin strains the wrist; the serve's hyperextension-and-rotation loads the lower back; and the explosive split-step, lunge and push-off load the Achilles and ankle. Each has a clear, load-based rehab path — and each is influenced by the same chain.

Wrist. The shift to extreme western grips and heavy topspin has made wrist injury more relevant. Israel et al. (J Wrist Surg, 2023) used 3D motion capture and dynamic EMG to map wrist motion in players, and case evidence (Josh Naga Sai Akhil et al., Physiother Res Int, 2026) shows blood-flow-restriction training can rebuild wrist function while protecting an irritated tendon. The principle is constant: protect, then progressively load.

Lower back. The serve combines lumbar hyperextension, lateral flexion and rotation under speed — a recipe for facet and disc stress and, in adolescents, occasionally a stress reaction of the pars. Most acute tennis back pain is a musculoskeletal strain that settles in 2–4 weeks with relative rest and graded return; the durable fix is core and hip-rotator strength so the spine is not the rotation engine. We frequently use McKenzie MDT to classify and direct movement.

Achilles and ankle. Acute lower-extremity injury — the ankle sprain above all — is the most common acute tennis injury and predominates across recreational, high-school and league cohorts (Llanes et al., 2023; Krueckel et al., 2024). The split-step and repeated lunge also drive Achilles tendinopathy. Both respond to progressive calf and ankle loading plus balance retraining to restore the stable base the whole chain depends on.

How do I actually prevent tennis injuries?

Prevention is mostly load management and pre-conditioning, not luck. Cap weekly volume increases near 10%, build cuff, scapular, core and ankle capacity before the season, fix grip size and string tension, and warm up dynamically before play. A structured warm-up alone measurably lowers injury rates.

The strongest modifiable risk factor is the relationship between how much load you suddenly add and how much you can tolerate. Moreno-Pérez et al. (Eur J Sport Sci, 2020) linked acute and chronic workloads to injury risk in high-performance junior players: rapid spikes in playing time relative to the recent baseline raise risk. The practical rule is to keep weekly increases modest — roughly 10% — and to avoid the classic "two tournaments after a quiet month" trap.

Pre-conditioning works. Render et al. (Sports Health, 2025) followed adult recreational players over a year and found a structured warm-up and cool-down programme reduced injury rates when adhered to. Reference values for upper-limb performance tests (Cools et al., Sports Health, 2025; Tooth et al., JSES Int, 2024) let us benchmark a player against age- and sex-matched norms and target the specific deficit rather than guessing. Heming et al. (Br J Sports Med, 2025) summarised modifiable risk factors and prevention strategies for upper-extremity injury — again pointing at strength, control and graded exposure.

A practical pre-season block runs 6–8 weeks: posterior cuff and scapular endurance, anti-rotation core (Pallof press, plank progressions, bird dog), hip-rotator and gluteus-medius strength, single-leg ankle stability, and forearm endurance. Equipment is part of prevention — a grip sized to the hand and a string tension matched to the level reduce the shock the forearm absorbs (Le Solliec et al., 2024).

When is it safe to return to the court?

Return-to-sport is decided by criteria, not by the calendar. The bar at Recovery TLV: rotator-cuff strength 65–75% of the healthy side, ROM symmetry of at least 90%, a 60-second plank with a leg lift, and two weeks of full-intensity play with no symptoms. Premature return is the leading cause of recurrence.

"How long until I can play?" is the wrong question; "what does the tissue tolerate today, and what does it need to tolerate to play?" is the right one. The decisive variable is not biological healing time but rebuilt capacity. We return players through a graded ladder: shadow swings, ball-feed at 50% effort, mini-tennis on a short court, then full-court rallying, then point play, then competition. Each rung must be cleared without a symptom flare before the next.

Objective testing anchors the decision. Upper-limb functional and performance tests with published norms (Cools et al., 2025; Tooth et al., 2024) let us confirm the arm is ready rather than relying on how it feels on a good day. Heath et al. (Orthop J Sports Med, 2026) reported return-to-sport patterns after upper-extremity injury, underscoring that documented criteria — not pain alone — should gate the decision. This is the same return-to-sport discipline we apply across sports rehabilitation and for racket-sport siblings such as padel.