High Ankle Sprains: Advanced Syndesmotic Injury Rehabilitation (208 of 550 - Glossary Series)

Written by Rehab Mechanics

1. Opening Summary Paragraph

In clinical sports traumatology, lower-extremity arthrokinematics, and our Physiotherapy & Sports Medicine Glossary, a High Ankle Sprain (Syndesmotic Ankle Sprain / Distal Tibiofibular Syndesmosis Tear) defines the high-energy structural tearing of the dense ligamentous complex—specifically the Anterior Inferior Tibiofibular Ligament ($\text{AITFL}$), the Posterior Inferior Tibiofibular Ligament ($\text{PITFL}$), the transverse ligament, and the distal interosseous membrane ($\text{IOM}$)—that binds the distal tibia and fibula together above the ankle joint line to form the load-bearing ankle mortise. Unlike standard lateral (low) ankle sprains (Do I Always Need Physiotherapy for a Rolled Ankle?), which occur via inversion with the foot pointed downward and heal along a relatively rapid timeline, syndesmotic tears are driven by violent forced external rotation of the foot combined with hyper-dorsiflexion under axial load. Because the talus acts like a mechanical wedge that pries the two shin bones apart with every weight-bearing step, high ankle sprains generate severe structural instability under rotational loads—requiring a slower, strictly protected continuum of non-impact tracking before returning to turf or road. Physiotherapy in Toronto at Queen West Rehab Mechanics assists field sport competitors and hybrid fitness runners near Liberty Village who experience an explosive outward ankle twisting injury by conducting comprehensive biomechanical movement assessments, utilizing our master high ankle tear resource at Rehab Mechanics, and guiding phased sensorimotor balance rehabilitation and Heavy Slow Resistance ($\text{HSR}$) loading.

2. The Patient’s Story / Toronto Context

Across West Toronto’s high-intensity turf venues and athletic corridors—from soccer, rugby, and ultimate frisbee competitors planting and cutting under the lights at Lamport Stadium in Parkdale and BMO Field to hybrid fitness runners and CrossFitters tackling heavy sled pushes and agility blocks in Liberty Village—the distal ankle mortise is subjected to extreme multi-planar rotational torque (The Functional Fitness Athlete: High-Intensity Biomechanics & Rehab - 169 of 550).

Consider a 27-year-old competitive midfield soccer player and hybrid runner living in a Liberty Village loft. During a contentious evening match on artificial turf, their right cleats plant firmly into the rubberized surface. As they pivot to shield the ball, an opposing player falls across the back of their lower leg—forcing their planted foot into extreme outward rotation (external rotation) while their shin drives forward into deep dorsiflexion.

They feel a sickening, deep tearing sensation above the ankle joint, radiating several inches up the front of the lower leg.

Assuming they have suffered a routine rolled ankle, they fall straight into The "Walk It Off & Stretch the Calf" Trap.

Because a high ankle sprain often produces surprisingly little basketball-sized swelling around the outer ankle bone (lateral malleolus) compared to a standard low sprain, they underestimate its severity. Following generic gym advice, they try to "stretch out the tightness" by dropping their heel off a step into deep dorsiflexion and attempting to jog along the Martin Goodman Trail three days later.

With every single push-off step, they hit The Mortise-Wedging Agony.

The moment their shin glides forward over their planted foot, a knife-like pain shoots up the front of their shin between the tibia and fibula, and their ankle feels as though it is physically splitting apart. By forcing early dorsiflexion stretches and impact jogging, they are repeatedly driving the wide front of the talus bone like a log-splitter straight into the torn Anterior Inferior Tibiofibular Ligament ($\text{AITFL}$)—widening the gap between the shin bones and turning a Grade I syndesmotic sprain into chronic mortise instability!

Inside our private clinical suites at Rehab Mechanics inside the Prime Medical Centre at 68 Abell Street in Queen West, we show Liberty Village athletes why a high ankle sprain is the polar opposite of a standard low ankle sprain (Overcoming Chronic Ankle Instability: Proprioceptive Foot Rehab - 16 of 550). While low ankle sprains thrive on early dorsiflexion mobility, high ankle sprains must be protected from terminal dorsiflexion and external rotation shear during the early healing window. By protecting the mortise from diastasis, clearing proximal fibular head blocks, and systematically rebuilding the foot core and peroneal dynamic clamp, we guide athletes safely back to high-velocity turf cutting without lingering instability.

☕ Suffering from deep anterior ankle pain that shoots up your shin after a twisting turf injury in Liberty Village or Parkdale? Explore our complete range of clinical services or consult our comprehensive Physiotherapy Topics Index.

3. Structural / Biomechanical Analysis

To understand why a high ankle sprain takes twice as long to heal as a standard lateral ankle sprain—and why walking on an unprotected syndesmotic tear pries the lower leg apart—we must dissect Tibiofibular Mortise Diastasis and Proprioceptive Shock Cascades.

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|               HIGH ANKLE SPRAIN (SYNDESMOTIC TEAR): MORTISE DIASTASIS VS. DYNAMIC CLAMP           |

+---------------------------------------------------------------------------------------------------+

|                                                                                                   |

|   [A] TIBIOFIBULAR MORTISE DIASTASIS (THE WEDGE)     [B] THE REHAB MECHANICS PROTECTED CONTINUUM  |

|   (External Rotation + Hyper-Dorsiflexion)           (Mortise Protection + Dynamic Muscular Clamp)|

|                                                                                                   |

|        Planted Foot Twists Outward (External Rotation)    Early Phase: Boot/Tape Limits ER & DF   |

|        + Tibia Drives Into Deep Dorsiflexion              + Non-Impact Concentric Fluid Flushing  |

|                        |                                                 |                        |

|                        v                                                 v                        |

|        1. THE TALAR LOG-SPLITTER EFFECT:                  1. FIBROBLASTIC MORTISE CONSOLIDATION:  |

|        • Anterior Talus is 4-5 mm Wider Than Posterior    • Prevents Talar Wedging During Healing |

|        • Wide Talus Rotates & Wedges Into Ankle Mortise   • AITFL & Interosseous Membrane Knit    |

|        • Pries Distal Tibia & Fibula Physically Apart     • Preserves <1-2 mm Physiological Play  |

|        • Ruptures AITFL & Tears Up Interosseous Membrane                 |                        |

|                        |                                                 v                        |

|                        v                                  2. PROPRIOCEPTIVE & DYNAMIC CLAMPING:   |

|        2. PROPRIOCEPTIVE SHOCK CASCADE:                   • Rewires Interosseous Mechanoreceptors |

|        • Shears High-Density Ruffini/Pacinian Sensors     • Peroneus Longus & Tibialis Posterior  |

|        • Arthrogenic Inhibition Shuts Down Peroneals        Co-Contract as Active Muscular Clamp  |

|        • Mortise Widens (Diastasis) on Every Step!        • Restores Explosive Turf Cutting Power!|

|                        |                                                 |                        |

|   +--------------------+--------------------+          +-----------------+--------------------+   |

|   |   THE "TREAT IT LIKE A LOW SPRAIN" TRAP |          |   THE BULLETPROOF ANKLE MORTISE      |   |

|   |   • Aggressive calf stretching pries gap|          |   • Symmetrical mortise congruency   |   |

|   |   • Premature running widens diastasis  |          |   • Zero anterior shin splitting pain|   |

|   |   • Leads to rapid tibiotalar arthritis |          |   • <70 ms reactive peroneal reflex  |   |

|   |   • Chronic giving-way on Liberty turf  |          |   • Permanent athletic longevity     |   |

|   +-----------------------------------------+          +--------------------------------------+   |

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1. Tibiofibular Mortise Diastasis: The Talar "Log-Splitter" Effect

The ankle joint (talocrural joint) relies on a precise bony-ligamentous fork known as the ankle mortise—formed by the distal tibia (medial malleolus and tibial plafond) and the distal fibula (lateral malleolus), which cradle the dome of the talus bone underneath:

  • The Four-Ligament Syndesmotic Clamp: Unlike every other joint in the leg, the distal tibiofibular syndesmosis is a fibrous joint with almost zero cartilage. It is held tightly together by four passive restraints:

    1. Anterior Inferior Tibiofibular Ligament ($\text{AITFL}$): Running obliquely across the front of the joint (the very first structure to tear in a high ankle sprain).

    2. Posterior Inferior Tibiofibular Ligament ($\text{PITFL}$) & Transverse Ligament: Forming the deep, thick posterior buttress.

    3. Interosseous Ligament & Interosseous Membrane ($\text{IOM}$): The broad, fibrous collagen sheet connecting the entire shafts of the tibia and fibula like a suspension web.

  • Why Dorsiflexion and External Rotation Pry the Bones Apart: The dome of the talus bone is shaped like a trapezoid: its anterior (front) aspect is $4\text{ to }5\text{ millimeters}$ wider than its posterior (back) aspect. In a healthy ankle, when you bend your knee forward into dorsiflexion, the wide front of the talus glides into the mortise, naturally spreading the fibula and tibia apart by a tiny, physiological $1.0\text{ to }1.5\text{ mm}$ while the syndesmotic ligaments pull taut to lock the joint stable (Optimizing Ankle Dorsiflexion: Unlocking Restricted Joint Tracking - 94 of 550).

  • Pathological Mortise Diastasis: When a field athlete’s foot is planted and violently twisted outward (forced external rotation) while in hyper-dorsiflexion, the wide talus rotates horizontally inside the mortise like a mechanical log-splitter. The lateral wall of the talus slams against the fibula, prying the fibula away from the tibia. The $\text{AITFL}$ snaps first, and the tear zippers upward through the interosseous membrane.

  • The Consequence of Every Unprotected Step: Once the $\text{AITFL}$ and interosseous membrane are torn, the mortise loses its horizontal clamp. Every time the patient attempts to bear weight or push off in walking, axial Ground Reaction Forces ($\text{GRF}$) drive the talus upward between the un-tethered tibia and fibula—causing abnormal widening and shearing (tibiofibular mortise diastasis). Lateral shift of the talus by even $1\text{ millimeter}$ reduces the weight-bearing contact area of the tibiotalar joint by over $42\%$, concentrating crushing pressure onto the articular cartilage!

2. Proprioceptive Shock Cascades: Sensory Blindness in the Interosseous Membrane

Why do athletes recovering from a high ankle sprain experience such profound balance loss and a terrifying feeling that their lower leg is "disconnected"? The answer lies in Proprioceptive Shock Cascades:

  • The Interosseous Sensory Web: Histological neuro-mapping demonstrates that the $\text{AITFL}$ and the broad interosseous membrane ($\text{IOM}$) are not just mechanical straps; they are densely innervated by Pacinian corpuscles (which detect high-velocity vibration and acceleration) and Ruffini endings (which detect transverse shearing tension between the tibia and fibula).

  • De-Afferentation & Reflex Latency: When an outward twisting trauma shears the $\text{AITFL}$ and rips up the interosseous membrane, these high-density position sensors are physically torn (de-afferentation). Simultaneously, the shockwave travels straight up the interosseous membrane to the proximal tibiofibular joint at the outside of the knee—where the common peroneal nerve wraps around the fibular neck.

  • Shutting Down the Dynamic Muscular Clamp: Flooded with nociceptive distress from the torn membrane, the spinal cord triggers profound Arthrogenic Muscle Inhibition ($\text{AMI}$), shutting down the peroneus longus, tibialis posterior, and flexor hallucis longus—the exact dynamic muscles needed to compress and stabilize the ankle mortise from below!

Clinical / Biomechanical Feature

Standard Lateral (Low) Ankle Sprain

High Ankle Sprain (Syndesmotic Tear)

Primary Ligaments Torn

$\text{ATFL}$ & $\text{CFL}$ (Below the ankle joint line)

$\text{AITFL}$, $\text{PITFL}$, & Interosseous Membrane (Above joint)

Mechanism of Injury

Inversion + Plantarflexion (Rolling inward on toes)

Forced External Rotation + Hyper-Dorsiflexion

Pinpoint Tenderness Locus

Inferior/anterior to lateral malleolus

Anterior tibiofibular groove & radiating up the shin

Effect of Dorsiflexion (Knee-to-Wall)

Helpful early on to restore talar glide

Provocative early on (Wedges talus into torn mortise!)

Key Provocative Special Tests

Anterior Drawer & Talar Tilt Tests

Kleiger’s External Rotation Test & Calf Squeeze Test

Expected Recovery Timeline

$2\text{ to }6\text{ Weeks}$ (Musculoskeletal Healing Timelines - 199)

$6\text{ to }16+\text{ Weeks}$ (Requires slower, protected loading)

4. Clinical Red Flags

Because unstable syndesmotic diastasis and high fibular fractures require orthopedic surgical fixation (such as tightrope suture-button or syndesmotic screw stabilization) to prevent permanent ankle destruction, clinicians must screen for critical red flags at initial presentation:

  • Exquisite Pain Triggered by the Squeeze Test (Compressing the Calf Mid-Leg), Accompanied by a Total Structural Inability to Bear Any Weight for Four Steps: When a clinician compresses the tibia and fibula together at the mid-calf (well above the ankle) and this maneuver reproduces sharp, exquisite pain down at the anterior distal syndesmosis (Positive Hopkinson Squeeze Test)—paired with a complete inability to bear weight for four consecutive steps (Ottawa Ankle Rules) or tenderness extending more than $6\text{ cm}$ up the interosseous membrane—this confirms a high-grade syndesmotic tear (Grade II/III with frank or latent mortise diastasis) requiring immediate non-weight-bearing crutch offloading, weight-bearing mortise radiographs (or diagnostic ultrasound/MRI), and orthopedic surgical triage (Clinical Diagnostic Testing: Beyond the Structural MRI Myth - 81 of 550).

  • Proximal Fibular Neck Tenderness (Maisonneuve Fracture Alert): In high-energy external rotation twists, the rotational force enters the medial/anterior ankle, travels all the way up the interosseous membrane, and exits through a spiral fracture of the proximal fibula near the knee (Maisonneuve Fracture). Every patient with a suspected high ankle sprain must have their entire fibular shaft palpated up to the knee!

  • Medial Malleolar / Deltoid Ligament Tenderness with Lateral Shift: Concomitant tearing of the deep deltoid ligament on the inner ankle alongside the $\text{AITFL}$ creates a "bimalleolar equivalent" unstable ankle where the talus shifts laterally inside the mortise, mandating surgical stabilization.

5. Primary Source Proof (PubMed / NIH)

Extensive peer-reviewed orthopedic sports medicine, biomechanics, and physical therapy literature confirm that distal tibiofibular syndesmosis injuries require distinct diagnostic testing (Squeeze Test and External Rotation Test), that $1\text{ mm}$ of talar shift reduces tibiotalar contact area by $42\%$, and that rehabilitation must protect against early dorsiflexion/external rotation wedging before progressing to dynamic neuromuscular loading.

6. The Rehab Mechanics Corrective Protocol

Inside our Queen West clinic at 68 Abell Street, we never treat a high ankle sprain with a cookie-cutter "rolled ankle" sheet. Operating alongside our master high ankle tear resource at Rehab Mechanics, our 4-phase corrective protocol respects the unique biomechanics of the tibiofibular mortise:

Phase 1 — Diagnostic Triage, Mortise Protection, & Non-Impact Flushing (Weeks 1–3)

  • Syndesmotic Cluster & Maisonneuve Screening: Executing the Hopkinson Calf Squeeze Test, Kleiger’s Dorsiflexion-External Rotation Test, and Proximal Fibular Palpation while measuring the exact height of interosseous tenderness (in centimeters above the joint line) to establish your true biological recovery timeline (Musculoskeletal Healing Timelines - 199 of 550).

  • Protecting the Mortise (No Deep Dorsiflexion or External Rotation): Utilizing a walking boot (with heel wedges if needed) or circumferential Mulligan Distal Tibiofibular Circumferential Taping to mechanically compress the fibula and tibia together. We strictly avoid aggressive calf drops or deep knee-to-wall stretches during Phase 1 so the wide anterior talus does not wedge the healing $\text{AITFL}$ apart!

  • Active Fluid Flushing & High TENS / NMES: Deploying High-Frequency TENS for acute pain gating and zero-resistance concentric stationary cycling to flush inflammatory exudate (Flushing the Fluid - 157 of 550) while firing the peroneals isometrically via tactical $\text{NMES}$.

Phase 2 — Neutral-Plane Tracking & Dynamic Muscular Clamping (Weeks 3–6)

  • Rebuilding the Dynamic Mortise Clamp: The peroneus longus (wrapping under the foot from lateral to medial) and the tibialis posterior (wrapping from medial to lateral) form a anatomical "stirrup" that dynamically pulls the fibula and tibia together when they co-contract. We prescribe neutral-angle isometric and slow isotonic inversion/eversion and plantarflexion (strictly in the sagittal plane, avoiding outward toe flare) to build this internal muscular clamp.

  • Intrinsic Foot Core Doming: Training barefoot Short-Foot Doming (The Foot Core System - 160 of 550) because an arch that collapses into overpronation forces the talus into internal rotation and relative external tibial/foot torsion—the exact vector that stresses the $\text{AITFL}$!

  • Proximal Hip & Core Fortification: Keeping your athletic engine primed with non-ankle-shearing gluteus medius and core stabilization work.

Phase 3 — Graduated Heavy Slow Resistance ($\text{HSR}$) & Proprioceptive Rewiring (Weeks 6–10)

Phase 4 — Rotational Torque Inoculation & Liberty Village Turf Return (Weeks 8–14+)

  • Sagittal-to-Rotational Plyometric Progression: Progressing systematically from linear two-leg pogo hops to single-leg sagittal hops, 45 lateral bounds, and finally 90 rotational pivot cuts on our indoor clinic turf track.

  • Return-to-Sport Verification: Requiring $>95\%$ Limb Symmetry Index ($\text{LSI}$) on triple-crossover hop testing and pain-free high-speed cutting before clearing you back to Lamport Stadium pitches or Liberty Village running tracks.

7. Related Conditions We Treat

8. Related Blogs

9. Services Used in Treatment

10. FAQ Section

  • What is a high ankle sprain and how is it different from a regular ankle sprain? A regular (low) ankle sprain tears the outer ligaments below the ankle joint when your foot rolls inward. A high ankle sprain (syndesmotic tear) tears the tough ligaments above the ankle joint ($\text{AITFL}$ and interosseous membrane) that hold your two shin bones (tibia and fibula) together—typically caused when your planted foot is violently twisted outward while your knee drives forward.

  • Why does a high ankle sprain take so much longer to heal than a low ankle sprain? In a low ankle sprain, flat-footed standing actually compresses and stabilizes the ankle bones. In a high ankle sprain, every time you put weight on your foot and bend your ankle forward, the wide front of the talus bone wedges upward between the tibia and fibula like a log-splitter, prying the torn ligaments apart (mortise diastasis). Therefore, it requires a slower, strictly protected loading progression.

  • Why shouldn't I aggressively stretch my calf in the first few weeks of a high ankle sprain? Dropping your heel off a step into deep dorsiflexion forces the widest part of the talus bone straight into the ankle mortise, mechanically spreading the tibia and fibula apart and re-tearing the healing $\text{AITFL}$ fibers! Early rehab must protect against terminal dorsiflexion and external rotation.

  • What is the 'Squeeze Test' for a high ankle sprain? The Hopkinson Calf Squeeze Test is performed by squeezing the tibia and fibula together at the middle of the calf (well above the ankle). If compressing the bones mid-calf reproduces sharp pain down at the front of the upper ankle, it confirms a syndesmotic high ankle sprain.

  • Why does my doctor or physiotherapist check my knee when I hurt my ankle? In severe outward-twisting injuries, the rotational force can travel all the way up the interosseous membrane between your shin bones and exit by fracturing the top of the fibula bone right below the outside of the knee (a Maisonneuve fracture). Palpating the entire fibula up to the knee is mandatory to rule this out.

  • When does a high ankle sprain require surgery (like TightRope fixation)? Grade I high ankle sprains (stretched/partially torn $\text{AITFL}$ with a stable mortise) heal non-surgically with structured physical therapy. However, Grade II/III tears that show frank or latent mortise diastasis (widening between the tibia and fibula on weight-bearing X-rays or MRI) or an inability to bear weight for four steps require orthopedic surgical consult for suture-button (TightRope) or screw fixation.

  • Why does my ankle feel so unstable and clumsy even after the pain goes away? The interosseous membrane and $\text{AITFL}$ are packed with high-density position sensors (mechanoreceptors). Tearing these ligaments triggers a proprioceptive shock cascade, leaving the joint "blind" to rotational shear and inhibiting your peroneal muscles. Advanced sensorimotor balance training is required to rewire your reflexes.

  • How long does it take to return to soccer or running after a high ankle sprain? While a mild Grade I sprain typically requires $6\text{ to }8\text{ weeks}$ of phased rehabilitation, moderate Grade II sprains or post-surgical tightrope repairs require $10\text{ to }16+\text{ weeks}$ of progressive loading and rotational turf inoculation before full-speed cutting is safe.

11. How Physiotherapy Helps

  • Differentiating distal tibiofibular syndesmotic tears from standard lateral ankle sprains via Squeeze and External Rotation cluster testing

  • Protecting the healing ankle mortise from talar wedging and diastasis by restricting early terminal dorsiflexion and external rotation shear

  • Rebuilding the dynamic muscular stirrup clamp (peroneus longus, tibialis posterior, and intrinsic foot core) to compress the mortise actively

  • Rewiring interosseous membrane proprioceptive shock cascades through multi-sensory perturbation and reactive balance training

  • Progressing systematically through flat-floor to full-range Heavy Slow Resistance ($\text{HSR}$) and rotational turf cutting tracks

  • Screening rigorously for positive Squeeze Tests, four-step weight-bearing failure, and proximal Maisonneuve fractures

12. CTA — Contact Us Today

Contact Us Today — All you have to lose is the pain. Stop treating a dangerous high ankle sprain like a common rolled ankle and risking permanent mortise widening or early ankle arthritis. Book a comprehensive Full-Body Biomechanical & Ankle Mortise Assessment with our clinical team today to protect your syndesmosis and build a phased, evidence-based return-to-sport plan. Located inside the Prime Medical Centre at 68 Abell Street, Queen West (Explore our Services or browse our Physiotherapy & Sports Medicine Glossary). Email: info@rehabmechanics.com | Phone: (416) 533-3900

About the Author

Mr. Sanjay Attwala (B.Sc., M.Sc., RPT) is a Registered Physiotherapist, clinical director, and the founder of Rehab Mechanics in Toronto. With over 15 years of registered clinical practice and a deep specialization in complex musculoskeletal rehabilitation, Sanjay synthesizes rigorous international academic training with advanced evidence-based therapeutics to guide his clinical practice and patient education initiatives.

Academic Background & Credentials

Clinical Expertise & Philosophy                                 

Sanjay’s clinical approach rejects passive symptom management in favor of identifying underlying biomechanical root causes. His diverse expertise spans advanced manual therapies, personalized corrective exercise prescription, and modern physical modalities. At the Rehab Mechanics Toronto Queen West clinic, a routinely diagnoses and treats complex conditions including:

  • Spinal & Discogenic Pathology – Cervical, thoracic, and lumbar disc injuries, sciatica, and sacroiliac joint (SIJ) dysfunction.

  • Upper & Lower Extremity Injuries – Rotator cuff tears, frozen shoulder, tennis/golfer’s elbow, carpal tunnel syndrome, and complex ankle/foot pathologies.

  • Perinatal & Pelvic Health Rehabilitation – Specialized assessment and rehabilitation protocols tailored specifically for women during pregnancy and the post-partum period, addressing pelvic girdle pain, diastasis recti, and core stabilization.

  • Specialized Rehabilitation – Pelvic health therapy, TMJ dysfunction, post-surgical rehabilitation (including Total Hip and Total Knee Replacements), and custom orthotics dispensing.

  • Shockwave Therapy: with advanced cutting edge technological devices to suit your needs.

Interdisciplinary Practice & Patient Care

Sanjay practices an integrated model of healthcare, working closely alongside medical doctors inside the Prime Medical Centre on Abell Street to streamline patient recovery pathways. He maintains a human-centric, communication-first clinical framework, ensuring that care remains fully customized rather than automated. His clinical caseload encompasses a broad operational spectrum under Ontario's regulatory frameworks, including:

  • Motor Vehicle Accident (MVA) Claims – Rehabilitation navigating Ontario’s statutory accident benefits schedule.

  • Workplace Safety and Insurance Board (WSIB) – Occupational injury management and return-to-work screening.

  • Extended Health Care (EHC) & Private Practice – Multi-tier insurance coordination and long-term athletic development plans.

Commitment to Research & Community

Outside of his clinical caseload at Rehab Mechanics and his additional practice affiliations in Etobicoke, Sanjay is an active health writer and community educator. He translates contemporary peer-reviewed medical research into accessible, actionable guidance on his professional blog. As a dedicated father and husband, he mirrors his professional advice in his personal life, focusing on structural mobility, cross-training, and longevity to help his family and his community thrive. Naturally he takes he a keen interest in rehabilitation for women who are pregnant and post-partum.

Disclaimer:

The information provided on this blog is intended for educational and informational purposes only. It does not constitute medical advice, diagnosis, or a treatment plan. Always seek the direct advice of a Registered Physiotherapist, physician, or other qualified health provider regarding any medical condition or physical rehabilitation routine.

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Do you need more explanation on a specific term or phrase?

Please check out our glossary of terms and phrases in sport medicine and physiotherapy with this hyperlink or the URL itself relating to the Rehab Mechanics Physiotherapy Sports Medicine Glossary™: https://www.rehabmechanics.com/physiotherapy-sports-medicine-glossary.

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