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What Is an AC Joint Injury (Shoulder Separation)?


By Dr. Jamie Phillips,


An acromioclavicular (AC) joint injury – often called a shoulder separation – is an injury to the joint at the top of the shoulder where the collarbone (clavicle) meets the shoulder blade’s acromion . Unlike a shoulder dislocation (which involves the ball-and-socket joint), an AC joint injury involves tearing or spraining of the ligaments that hold the clavicle and acromion together. This results in the clavicle separating from the acromion to varying degrees, hence the term “shoulder separation.” In hockey players, AC joint injuries commonly occur from a hard fall onto the shoulder or a direct blow – for example, a check into the boards or a collision on the ice that drives the shoulder downwards .


Why are AC joint injuries so common in hockey? Hockey is a high-impact sport with frequent collisions and falls at high speed on hard ice. AC joint injuries are the most common upper extremity injury in ice hockey players , largely because players often experience heavy contact that drives the shoulder into the ice or boards. When the shoulder takes a forceful impact (especially with the arm adducted against the body), the AC ligaments can be sprained or torn, leading to separation of the joint . Additionally, hockey players are typically young and active (often males under 35), which is the demographic most prone to AC separations in contact sports .


Types and Severity of AC Joint Injuries (Grades I–VI)


AC joint separations are classified by severity into Grade I through Grade VI (1–6), commonly known as the Rockwood classification . Higher grades indicate more severe ligament damage and greater separation of the joint. The classification helps guide treatment decisions . Grade I–III are considered mild to moderate (often managed without surgery), while Grade IV–VI are severe injuries that typically require surgical intervention .


Illustration of AC joint separation severity (Normal vs. Grade I, II, III). In higher-grade separations, the end of the clavicle displaces upward, creating a visible bump on top of the shoulder. Each grade of AC joint injury can be described as follows:

  • Grade I (Mild Sprain): The AC ligaments are stretched or mildly sprained but not torn. The clavicle remains in place. There is no visible deformity and the joint looks normal on X-ray . Symptoms are mainly pain and tenderness at the AC joint, but the joint is stable.
  • Grade II (Moderate Sprain): The AC ligament is torn, and the coracoclavicular (CC) ligaments (which also stabilize this joint) are sprained or partially torn. This may cause a slight separation – the clavicle is out of alignment slightly, resulting in a small bump on the shoulder . The shoulder may have some horizontal instability, but the separation is usually less than 25% of the normal distance .
  • Grade III (Complete Separation): Both the AC and CC ligaments are completely torn, causing a obvious separation. The clavicle is no longer held to the acromion, so it rides up, creating a noticeable bump at the AC joint. On X-ray, the distance between clavicle and coracoid (CC distance) can increase 25–100% compared to the normal side . The shoulder may look deformed or “step off” at the top. Despite the prominent bump, a Grade III injury can still often be treated without surgery in many cases .
  • Grade IV (Posterior Displacement): A severe injury where the clavicle is pushed backwards into or through the trapezius muscle . All supporting ligaments are torn. This causes a significant deformity (with a prominent bump or posterior fullness on exam) . Grade IV injuries are not common and usually require surgical repair .
  • Grade V (Severe Upward Displacement): An extreme version of a Grade III. The clavicle is severely elevated (often more than 100% higher than its normal position relative to the shoulder blade) . The shoulder droops downward markedly under the weight of the arm (since the “strut” support of the clavicle is gone) . This injury causes a very large bump and is usually not reducible without surgery, so operative treatment is typically recommended .
  • Grade VI (Inferior Dislocation – Very Rare): An extremely rare injury where the end of the clavicle is displaced downward, underneath the coracoid or acromion (toward the ribcage) . It results from high-force trauma (such as a high-speed collision) and is often accompanied by other injuries . Grade VI also involves complete ligament disruption and requires surgery to relocate and fix the clavicle.

Most hockey-related AC joint injuries are Grades I–III (the milder end), but higher grades can occur with especially forceful impacts. Even a Grade I or II AC sprain can be very painful and temporarily debilitating, though these lower-grade injuries heal fairly quickly with proper care.



Symptoms and Diagnosis of an AC Joint Separation


Symptoms: An AC joint injury typically causes immediate pain on top of the shoulder at the moment of injury. Players often report sharp pain at the AC joint area, which may radiate into the neck or trapezius region . Soon after, the top of the shoulder can become swollen and tender to touch. Bruising may appear over the joint in the days following.


In higher-grade separations, a visible bump or prominence appears at the AC joint – this is the end of the clavicle that has risen up. The injured athlete will have difficulty lifting the arm, especially overhead or across the body. Movements like reaching the arm across the chest (for example, to put on a seatbelt or throw a check in hockey) typically increase the pain. They might also feel that the shoulder is weak or “giving way” with certain motions due to the instability.


On physical exam, there is point tenderness over the AC joint and sometimes an obvious deformity (an “abnormal contour” at the shoulder) compared to the uninjured side . Pressing down on the clavicle may accentuate its movement like a piano key in higher grades. Pain is often reproduced with specific tests, such as the cross-body adduction test (where the patient brings the arm across the chest, compressing the AC joint) – this maneuver typically causes AC joint pain if injured . Shoulder range of motion is limited by pain, particularly when lifting the arm up or doing pushing motions.


Diagnosis: Doctors diagnose an AC joint separation through history, exam, and imaging. The mechanism of injury (fall on shoulder or direct blow in hockey) combined with the focal pain and any deformity strongly suggest an AC injury. Standard X-rays of the shoulder confirm the diagnosis and help determine the injury grade by measuring the separation . X-rays are usually done from the front (AP view) comparing both shoulders, and sometimes a special axillary lateral view is taken to detect any backward displacement of the clavicle (important for diagnosing a Grade IV) . In subtle cases (e.g. to distinguish Grade II vs III), some doctors may use stress views (holding a weight) to see if the joint widens, though this is less common today.


Occasionally, an MRI may be ordered for a severe injury or if the diagnosis is unclear. MRI can visualize the ligament damage and any additional injuries (like rotator cuff or cartilage injuries) in the shoulder . However, MRI is usually not required for routine cases. The combination of physical exam and X-ray is sufficient in most instances to classify the AC joint injury.


AC Joint Separation Treatment and Recovery Timeline


Initial treatment of an AC joint injury focuses on pain control and supporting the shoulder. Right after the injury, the player should ice the shoulder and may use a sling to support the arm and reduce stress on the AC joint. Rest and anti-inflammatory medications (e.g. ibuprofen) help reduce pain and swelling . For very mild injuries (Grade I), a sling might only be needed for a few days until pain subsides. For Grade II or III injuries, a sling is often worn for 1–2 weeks or slightly longer to allow the torn ligaments to begin healing . During this period, one should avoid heavy lifting or movements that aggravate the shoulder.


Whether or not surgery is needed depends on the severity (grade) of the separation and the athlete’s needs. The general approach to AC joint separation treatment is:

  • Non-Surgical (Conservative) Treatment: This is the first-line for most Grade I, II, and even many Grade III injuries . Conservative management includes immobilization in a sling briefly, ice, rest, and early physical therapy to restore motion and strength . Most AC joint injuries in recreational and even professional hockey players are treated without surgery unless there is gross deformity or persistent instability. Research shows that even high-grade (Grade III) separations often heal well without surgery, with outcomes comparable to surgery if rehab is done properly . By avoiding surgery, athletes eliminate surgical risks and can often return to sport sooner. For example, many NHL players with Grade I–III AC separations return to play in as little as 2–4 weeks once pain allows , wearing protective padding. In non-elite athletes, return might be closer to 6–12 weeks to regain full strength . Rehabilitation is critical during non-operative treatment – we’ll discuss the rehab protocol in the next section.

  • Surgical Treatment: Surgery is generally reserved for severe separations – typically Grades IV, V, and VI, or certain Grade III cases (for instance, in elite athletes or if the clavicle is profoundly displaced and unstable) . In these injuries, the clavicle is significantly out of place and the torn ligaments won’t heal back adequately on their own. Surgical techniques involve restoring the normal alignment of the clavicle and acromion (called reduction) and fixing them in place with hardware or by reconstructing the torn ligaments. There are various procedures (such as using a screw, suture anchors, or graft to rebuild the coracoclavicular ligaments). The goal is to stabilize the joint so the ligaments can heal in the correct position . After surgery, the arm is kept in a sling for several weeks to protect the repair . Physical therapy is still required after surgical repair, but starts later and progresses more cautiously than in non-operative cases. The overall recovery timeline with surgery is longer – often about 4 to 6 months before return to full sport activities – because it takes time for the reconstructed ligaments to heal and for strength to return. Surgery can successfully restore stability and has a high rate of return-to-sport in athletes , but it also carries risks like any surgery (infection, hardware problems, or persistent pain in some cases).

Recovery timelines vary with the injury grade and treatment route. For a Grade I AC sprain, a hockey player might be back on the ice in 1–2 weeks, as pain allows, using shoulder protection. Grade II injuries often heal in about 3–4 weeks, and a return to play by 4–6 weeks is common with rehab. Grade III injuries (non-surgical) typically require around 6–12 weeks of rehabilitation for full return to high-level play , though some pros accelerate this. If a Grade III is treated surgically (which might be chosen for certain competitive athletes), it then follows the longer surgical timeline (several months). Grades IV–VI, which nearly always need surgery, will sideline an athlete for several months; usually the player can resume full training around the 5–6 month mark post-op, once cleared by the surgeon .

It’s important to note that every athlete’s recovery can differ. Pain levels and healing rates vary. A key milestone for returning to hockey (or any sport) after an AC joint separation is regaining full, pain-free range of motion and near-normal shoulder strength. Players must also be able to perform sport-specific tasks (for hockey, that includes shooting, checking, stick-handling) without limitation. A proper rehabilitation program is essential to meet these goals, whether managing the injury conservatively or post-surgery . In the next section, we’ll explore an advanced AC joint rehab protocol designed for athletes, like the one used at Ghost Rehab, to optimize recovery.


Ghost Rehab’s Advanced AC Joint Rehab Protocol for Athletes


Rehabilitation is the cornerstone of recovery from an AC joint injury. At Ghost Rehab – a sports physical therapy and performance clinic – our team takes an advanced, multi-modal approach to shoulder rehab for athletes. Our AC joint rehab protocol is evidence-based and tailored to the unique demands of hockey players and other athletes. Key components of Ghost Rehab’s rehab approach include:

  • Dry Needling for Pain Relief: We incorporate trigger point dry needling to help alleviate muscular pain and guarding around the shoulder. Dry needling uses fine needles (similar to acupuncture needles) inserted into tight or knotted muscles to release tension and reduce pain. This can be especially helpful for AC joint injuries, where muscles like the trapezius and deltoid may become very tight or sore after the trauma. By relieving these myofascial trigger points, dry needling can improve shoulder mobility early in the rehab process and provide significant short-term pain relief . Reduced pain enables the athlete to perform exercises more effectively during therapy.

  • Myofascial Release and Manual Therapy: Ghost Rehab’s clinicians are experts in manual therapy techniques to restore mobility. Myofascial release involves hands-on techniques to stretch and loosen the fascia and muscles around the shoulder. After an AC separation, it’s common to develop tightness in the chest, neck, and shoulder muscles as the body tries to protect the area. Gentle joint mobilizations and soft tissue release can improve range of motion and decrease stiffness . For example, mobilizing the scapula and clavicle can help normalize movement at the AC joint as it heals. These techniques not only address the AC joint itself but also the shoulder blade and spine, which must move properly for the shoulder to function. By improving tissue flexibility and breaking up adhesions, myofascial release helps the athlete regain full motion without pain.

  • Neuromuscular Re-education: After the initial injury and immobilization phase, the shoulder may “forget” how to move in sync due to pain and disuse. Neuromuscular re-education is used to retrain proper movement patterns and muscle firing sequences. This means teaching the shoulder and shoulder blade (scapula) muscles to work together smoothly again. For instance, exercises focused on scapular stabilization (like gently pinching shoulder blades together) and proprioceptive drills help restore normal biomechanics. At Ghost Rehab, we utilize techniques like rhythmic stabilization, balance exercises, and sport-specific movement training to rebuild the brain-muscle connection. The goal is to regain normal, controlled movement patterns in the shoulder . Neuromuscular re-ed ensures that as strength returns, it does so with correct form – crucial for athletes who need efficient, safe motion on the ice. Poor movement patterns can lead to compensations or re-injury, so this step is vital for long-term success.

  • Progressive Strengthening and Sport-Specific Rehab: Building back strength is essential, but it must be done progressively. Our therapists design an individualized strengthening program that starts with gentle exercises and advances over time as healing progresses. Early on, isometric exercises (where the muscles contract without moving the joint) may be used around the shoulder to maintain muscle engagement without straining the AC joint. As tolerated, we introduce resistance bands and light weights to strengthen the rotator cuff, deltoids, trapezius, and the muscles that support the shoulder blade. A balanced shoulder-strength program is crucial – we target not just the shoulder but also the upper back and core, since all these areas work together for healthy shoulder function . Over a few weeks, the rehab transitions into more challenging exercises: push-ups or chest press (modified as needed), overhead lifting exercises, and eventually plyometric or explosive movements that mimic hockey actions (such as medicine ball throws to simulate shooting). This graded exercise progression builds the shoulder’s tolerance and strength back to pre-injury levels. By the end of rehab, the athlete performs high-level activities – like shooting pucks, performing stick checks, and bracing for contact – under the guidance of the therapist. This ensures they are truly ready for the demands of competitive play.

Ghost Rehab’s comprehensive protocol not only treats the injury but also addresses any underlying weaknesses or movement issues to prevent future injuries. Throughout rehab, we emphasize proper technique and body mechanics. Each session is one-on-one, allowing close supervision and adjustments. Modalities like cold therapy or electric stimulation might be used adjunctively for pain or swelling as needed, but active rehabilitation is the centerpiece.


Expertise from a Former Pro Hockey Player and Doctor of Physical Therapy


One aspect that sets Ghost Rehab apart is the leadership and insight of our founder, Dr. Jamie Phillips. Dr. Phillips is a former professional hockey player turned Doctor of Physical Therapy . With over a decade of experience at the NCAA Division I and pro hockey levels, he understands firsthand the physical demands and mental pressures athletes face . This rare combination of high-level sports experience and clinical expertise means our athletes get care from someone who truly “speaks the language” of hockey and sports injuries.


Dr. Phillips has leveraged his on-ice experience to develop rehab strategies that are practical and sport-specific. He knows what it takes to get a hockey player back to game shape after an AC joint injury – not just healing the joint, but also maintaining conditioning, confidence, and hockey-specific skills. Under his guidance, Ghost Rehab blends cutting-edge therapy with personalized care to keep athletes performing at their best . Our team stays up-to-date on the latest sports medicine research and techniques, ensuring that treatments like dry needling and neuromuscular re-education are used effectively and safely. We also understand the importance of communication with coaches, trainers, and physicians during an athlete’s recovery.


In summary, Ghost Rehab provides shoulder rehab for athletes by athletes, combining sports-savvy care with evidence-based practice. For hockey players with AC joint separations, this means a quicker, safer return to the rink.


Conclusion: Recovery and Outlook


AC joint injuries in hockey are common but very treatable. With prompt diagnosis, appropriate management, and a structured rehab program, most players recover fully and return to their prior level of play. It’s crucial to allow the injured ligaments to heal while simultaneously rehabilitating the shoulder’s strength and mobility. Minor AC joint sprains may heal in a matter of weeks, whereas severe separations (or those requiring surgery) take several months – but even in the worst cases, athletes can often resume sports with no long-term limitation once recovered.


Key takeaways for players, parents, and coaches dealing with an AC joint separation: Rest the shoulder initially and don’t rush back too soon; follow a guided AC joint rehab protocol to rebuild strength and function; and consider seeking out sports rehabilitation experts (like Ghost Rehab) who understand the unique demands of hockey. With advanced techniques such as dry needling, myofascial release, and tailored strengthening, rehabilitation can be optimized for a faster recovery . The involvement of a skilled physical therapist can often mean avoiding surgery for moderate injuries and still achieving excellent stability and function.


Hockey is a tough sport, but injuries like AC joint separations don’t have to be career-threatening. With the right treatment plan and rehab team, a player can overcome a shoulder separation and get back to scoring goals or making big saves. In fact, many athletes come back feeling even stronger and more confident in their shoulders because of the comprehensive rehab process. The combination of clinical expertise and sports experience at Ghost Rehab ensures that every athlete has the best chance at a full recovery – and an educated understanding of their injury. If you or someone you know suffers an AC joint injury in hockey, remember that prompt care, proper rehab, and expert guidance are the keys to getting back in the game.


Optimizing Recovery, On and Off the Ice – AC joint injuries may be common in hockey, but with knowledge and the right approach, players can successfully return to the sport they love. Shoulder health is vital for shooting, checking, and every aspect of hockey performance, so taking an AC joint injury seriously and rehabbing it thoroughly will pay off in both the short and long term. Ghost Rehab’s team is here to help athletes navigate that journey from injury to full recovery, using a proven blend of advanced therapy techniques and firsthand sports insight to keep our hockey players at the top of their game.




References:

  1. Orthobullets – Acromioclavicular Joint Injury (Shoulder Separation) Overview .
  2. AOSSM Sports Medicine Update (Winter 2023) – Impact of AC Joint Injuries in Ice Hockey .
  3. OrthoInfo – AAOS: Shoulder Separation (AC Joint Injury) Patient Guide .
  4. OrthoInfo – AAOS: Shoulder Separation Treatment .
  5. Orthobullets – AC Joint Injury Classification and Treatment .
  6. Clinical Study – Return to Play After AC Joint Injuries in NHL Players .
  7. Dry Needling Research – Analgesic Effects in Shoulder Pain .
  8. Physical Therapy Guide – AC Joint Injury Rehab and Exercises .

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By IIC2FRhivRRLOxIPEdhpmzNHnGG3 March 6, 2026
FAI in Hockey Players: Causes, Symptoms, and Recovery | Ghost Rehab What is FAI? (Brief Anatomy of the Hip & Impingement) Definition: Femoroacetabular impingement (FAI) is a condition where the bones of the hip joint are abnormally shaped. Because of this bony abnormality, the ball (femoral head) and socket (acetabulum) rub against each other during movement, causing pinching and irritation in the joint . Cam vs. Pincer: In FAI, extra bone spurs can form on either the femoral head/neck or the acetabular rim (or both). A cam impingement means a bump on the femoral head that grinds the cartilage inside the socket, while a pincer impingement means an overgrown rim of the socket that pinches the labrum between the bones . (Many athletes actually have a combined type with both cam and pincer features.) Joint Damage: The abnormal contact from these bony bumps prevents the hip from moving smoothly. Over time, repeated impingement can tear the acetabular labrum (the cartilage ring sealing the socket) and wear down the hip cartilage, potentially leading to early osteoarthritis . In other words, FAI can cause cumulative damage in the hip joint if not addressed. Why Hockey Players Are Susceptible Skating Mechanics: Hockey involves aggressive hip movements – players repeatedly drive the hip into deep flexion with internal rotation (think of a skating stride or a goaltender’s butterfly save). These motions push the femoral neck against the socket edge. Hockey players often operate near the extremes of hip range, so any bony bump can impinge sooner. In fact, impingement pain in hockey is closely linked to the combined flexion/internal rotation positions that occur in skating and goalie maneuvers . High Prevalence of Cam Deformity: Research shows that hockey players have a very high rate of FAI-related hip shape changes . For example, over 85% of hips in NHL players show evidence of a cam deformity . One study found hockey athletes were 10 times more likely to have an enlarged femoral head-neck angle (a sign of cam impingement) on X-ray compared to non-hockey peers . This means that many hockey players develop the bony features of FAI, likely due to their sport. Youth Training & Bone Development: The teenage years are when the hip bones are still developing. Intense, repetitive skating during youth hockey (especially playing year-round with little rest ) may contribute to the formation of cam bumps on the femur . In other words, the stress of hockey on an immature skeleton can spur extra bone growth (Wolf’s law: bone adapts to loads) over time. Studies have noted that the cam deformity tends to progress with age in youth players , suggesting the longer and harder a young athlete plays hockey, the more the hip may adapt in a maladaptive way . Not Always Symptomatic: Importantly, many hockey players with FAI-related bony changes have no symptoms . Studies of elite players show that these bone shape changes (cam/pincer) can be common but often asymptomatic . FAI becomes a problem when it causes pain or injury – specifically when the impingement leads to labral tears or cartilage damage. Once those occur, players will start experiencing the classic symptoms and performance issues. Common Symptoms and Warning Signs Groin and Front-of-Hip Pain: The hallmark symptom of FAI is pain in the hip groin area . Players often describe a deep ache or sharp pain in the front of the hip/pelvic region. Pain is typically brought on by activity – for example, a hockey player might feel a pinch when skating hard, doing deep cross-overs, or after a long time on the ice. Movements like turning, pivoting, or squatting can trigger a sharp, stabbing pain in the groin, or sometimes just a persistent dull ache . Pain from FAI is usually felt in the groin, but it can also radiate to the side of the hip, buttock, or even into the thigh. Some athletes describe it like a deep bruise or pressure in the hip joint that gets worse with intense activity or after sitting with hips bent for a long time . Hip Stiffness and Limited Motion: FAI often causes a noticeable loss of hip mobility . Players might feel their hip is “tight” or doesn’t move as freely, especially in certain directions. Commonly, internal rotation (turning the thigh inward) and flexion (lifting the knee toward the chest) are limited. A hockey player might struggle with low skating stances or certain stretches that were previously easy. This stiffness can lead to a sense of decreased flexibility in the hips . Coaches may notice the athlete can’t stride as widely or skates with a more upright posture due to the restricted motion. Clicking, Catching, or Locking Sensation: Many with FAI (especially if it has caused a labral tear) experience mechanical symptoms in the hip. They may feel or hear a “click” or pop in the hip with movement. Some describe a momentary catching or locking of the hip joint – as if it gets stuck briefly and then releases. These sensations often occur when moving from a flexed position (like getting up from a deep crouch) or changing direction quickly. A clicking hip accompanied by pain is a warning sign that a labrum tear could be present . Pain with Sitting or Prolonged Positions: Because hip impingement is worst when the hip is bent, sitting for long periods (especially in a deep seat or with poor posture) can aggravate the pain. A player sitting on a bus ride or in class may feel increasing hip ache or stiffness. They might instinctively shift position or straighten the leg to relieve the discomfort. Pain may also flare after games or workouts, during rest, as inflammation sets in. Limping or Movement Changes: In some cases, players with significant hip impingement will limp or alter their mechanics to avoid pain. You might notice a player coming off the ice with a slight limp or taking shorter strides on one side. They might rotate their foot outward (external rotation) when walking or skating to circumvent the painful range of motion. Any unexplained limp or change in skating stride, combined with groin pain, should raise a flag for possible FAI. Red Flag – “C-sign” : Athletes with deep hip joint pain often make a C-shape with their hand and grip the upper thigh/hip to describe where it hurts (covering the hip joint with their thumb and index finger). This “C-sign” complaint (pain deep in the hip joint) is commonly associated with FAI and labral tears . If a player localizes pain by cupping the hip like this, it suggests the pain is inside the joint. Risks of Untreated FAI Hip Labral Tears: If impingement is allowed to continue unchecked, the repetitive pinching can fray or tear the acetabular labrum (the ring of cartilage around the socket). A torn labrum causes more pain and hip instability – the labrum helps seal and stabilize the joint, so a tear can lead to catching sensations and further joint stress. Untreated FAI is one of the leading causes of labral tears in young athletes . What starts as a bony impingement problem can evolve into a soft tissue injury, compounding the issue. Cartilage Damage and Early Arthritis: The constant abnormal contact in the joint can wear down the articular cartilage that lines the hip socket and femoral head. Over time, this cartilage erosion can lead to osteoarthritis at an earlier age than normal. In fact, FAI is a known precursor to hip arthritis – the bone spurs literally grind the cartilage away. If a player’s FAI progresses to bone-on-bone contact, they could be at risk for arthritis in middle age or even earlier . This means an untreated impingement today might cause chronic arthritic pain and stiffness years down the line. Chronic Pain and Loss of Function: What may begin as occasional soreness can become a constant pain if FAI isn’t managed. Players might go from only having pain after games, to having pain during games, and eventually pain even with daily activities (like climbing stairs or tying shoes). Untreated FAI can significantly reduce quality of life – simple tasks can hurt, and athletic performance certainly declines. The longer painful symptoms go on, the more damage can accumulate in the joint . In the worst case, a player might have to stop sports entirely because of disabling hip pain. Reduced Performance: From an athletic standpoint, ignoring FAI symptoms can lead to measurable performance drops . The hip is a central power generator for skating; if it’s not moving well, the player’s stride and agility will suffer. Research on hockey players suggests that those with symptomatic FAI often show reduced hip strength and range of motion , which in turn negatively impacts their on-ice performance (speed, quick turns, etc.) . Players might notice they can’t skate as fast or shoot with as much torque because their hip won’t allow it. In high-level hockey, even a slight loss of motion or power can be the difference in performance. Compensatory Injuries: When one part of the body isn’t functioning properly, other areas often compensate. Players with a chronically painful hip may overload their opposite hip, lower back, or knees to make up for it. This can lead to secondary issues like low back pain, muscle strains, or knee problems. For instance, a player might start using their back more to get low instead of their hips, risking back injury. Thus, untreated FAI can set off a chain reaction of injuries beyond the hip itself. Prevention Strategies for FAI and Hip Injuries in Hockey While you can’t change the shape of your bones without surgery, there are steps to minimize impingement risk and keep the hips healthy . Emphasizing preventative care is especially important for young players and those at high risk (e.g. history of groin/hip pain). Key strategies include: Thorough Warm-Up: Always begin practices and games with a proper dynamic warm-up that targets the hips. This should include light aerobic activity (jogging or easy skating), dynamic stretches (leg swings, lunges, hip circles), and sport-specific movements at low intensity. A warmed-up muscle and joint is more flexible and can move through a greater range. Warming up increases blood flow to the hip musculature and prepares the joint for the demands of skating, which may reduce the chance of pinching the joint early in a session. Cold, stiff hips are more likely to impinge, so never skip the warm-up. Hip Mobility Exercises: Incorporate regular mobility training for the hips into the fitness routine. This can include exercises to gently improve hip internal rotation and flexion range of motion. Examples: quadruped rock-backs (sitting back toward your heels to flex the hip, while keeping a neutral spine) – inability to do this can indicate a flexion blockage , deep lunge stretches, figure-4 stretch for piriformis, and adductor/groin stretches. Use controlled leg swings and hip rotations to maintain capsule flexibility. Mobility drills with resistance bands pulling on the hip (distraction) can also help ease impingement tension by creating space in the joint . By keeping the hip capsule and muscles flexible, you allow the joint to move without hitting an impingement end-range as quickly. Strengthen Supporting Muscles: Focus on strength training the muscles around the hip and core. Strong glutes, hamstrings, and core muscles help stabilize the pelvis and control the hip’s motion, potentially reducing the strain on the joint during extreme movements. In particular, strengthening the gluteal muscles (glute max and medius) can offload the front of the hip by ensuring you’re using your hips correctly (e.g., pushing through the heels and engaging glutes in skating strides). Core strength helps keep the pelvis in a good position (preventing excessive anterior pelvic tilt which can worsen impingement) . A well-designed conditioning program will include exercises like squats (avoiding going past painful range), lunges, hip bridges/thrusts, and planks – emphasizing form and pain-free execution. Balanced muscle strength can relieve stress on the hip joint by improving biomechanics . Avoid Overuse & Early Specialization: For youth hockey players, one of the best preventative strategies is to moderate their year-round load . Overuse is a big factor in developing FAI. Encourage young athletes to take an off-season or play multiple sports, rather than skating 12 months a year. Continuous hockey without rest can repeatedly stress the hip and encourage those bone changes. One study found an alarmingly high rate (over 75%) of hip changes in hockey players aged 16–18 who had been skating since they were toddlers . If it turns out that intense hockey during growth spurts is causing these bone adaptations, then limiting ice time and ensuring rest periods is crucial . Coaches and parents should be mindful of how many hours a week a young player is on the ice. Rest and cross-training can help the body recover and develop more uniformly, potentially reducing the risk of FAI development . Proper Technique and Coaching: Ensuring players use good skating and shooting technique can also help. For instance, a player who consistently uses a very wide stance or deep hip turnout might be putting extra impingement stress on the hips. Coaching adjustments to technique (within the bounds of effective play) might alleviate some unnecessary hip strain. Goalie coaches, in particular, should pay attention to how often and how early young goalies are dropping into full splits or extreme butterfly positions – scaling training appropriately to hip maturity. Listen to Early Warning Signs: Perhaps the most important “prevention” tip is to address symptoms early . If a player complains of chronic groin or hip pain, don’t push through it without evaluation. Pain is the body’s warning that something isn’t right. Ignoring mild impingement pain and continuing high-intensity play can turn a minor issue into a major injury. Encourage a culture where players report hip and groin soreness. Early rest or modification of training (for example, temporarily avoiding deep squats in the weight room if those provoke pain) can prevent a small labral fray from becoming a full tear . In short, never ignore hip or groin pain in a hockey player. It’s far better to lose a week of practice for rehab now than to lose an entire season (or career) later. As medical staff often note: the longer impingement symptoms go untreated, the more damage can occur in the joint . Prompt attention and rehab can keep a player on the ice long-term. Manage Posture Off the Ice: Hockey players often have tight hip flexors and an anterior pelvic tilt from the skating position. Off the ice, this posture can contribute to impingement. Teach players to avoid prolonged sitting in a hunched posture (which keeps hips flexed). Encourage them to stand up and stretch hip flexors if sitting for long periods (school, etc.). Simple habits like sitting with knees slightly lower than hips, or using a small cushion to support the low back, can reduce constant hip flexion angles off the ice. The idea is to give the hip a break from impingement positions during daily life as well . Similarly, working on posterior chain flexibility (hamstrings, glutes) and core strength will improve pelvic alignment. Good posture and ergonomics can complement other prevention efforts. Diagnosis of FAI in Players Clinical Evaluation: When FAI is suspected, a healthcare provider (typically an orthopaedic surgeon or sports medicine physician) will take a history and perform a physical exam of the hip . A classic test is the “impingement test” (FADIR) – the examiner flexes the hip to 90° (bringing the knee toward the chest), then adducts and internally rotates the hip (turning the knee inward across the body). If this maneuver reproduces the sharp groin pain , the test is positive for impingement . Doctors will also check hip range of motion in all directions, compare one side to the other, and assess for pain with other movements (like FABER test – flexion/abduction/external rotation). They may observe the patient’s gait or skating motion (if possible) to see any limp or restriction. Imaging Tests: To confirm FAI and plan treatment, imaging is crucial. X-rays of the hip can reveal the telltale bony shapes – for example, an abnormally large femoral head-neck junction (cam bump) or an overextended acetabular rim (pincer spur). The presence of a cam lesion is often quantified by the alpha angle on X-ray; an alpha angle above ~55° is a common criterion indicating a cam-type impingement . X-rays also help evaluate if there are signs of arthritis (like joint space narrowing). Additionally, a magnetic resonance imaging (MRI) may be ordered, especially if a labral tear is suspected. MRI (often with an injected contrast, called MRA) can visualize the labrum and cartilage. A labral tear or cartilage damage caused by FAI will usually show up on MRI. In some cases, CT scans are used for detailed 3D bone anatomy if surgery is being planned, to map out the exact shape of deformities. Diagnostic Injection: Sometimes doctors use a local anesthetic injection into the hip joint to confirm the diagnosis. If numbing medicine is injected into the joint under imaging guidance and it temporarily relieves the pain , it suggests the pain is indeed coming from inside the hip (likely FAI/labrum) rather than from muscles or other sources. Often a corticosteroid is combined with the anesthetic to also reduce inflammation. An injection can thus be diagnostic and therapeutic – if a player gets significant relief for a time after the injection, it reinforces that FAI is the cause of pain . (Note: repeated steroid injections are generally avoided in young athletes, as they can weaken tissues; this is usually a one-time or occasional diagnostic tool.) Treatment Options: Conservative and Surgical Conservative (Non-Surgical) Management: Rest and Activity Modification: The first line of treatment for FAI is often simply changing activities to avoid painful movements . The athlete may need to take a break from hockey or cut down training volume in the short term to let the hip calm down. Coaches can modify drills so the player isn’t forced into extreme ranges (for example, limiting deep skating drills or avoiding certain stretches that hurt). Often, avoiding sitting in deep flexion (like deep crouches) and steering clear of exercises that provoke pain (full squats, heavy deadlifts from the floor) is advised . This doesn’t mean the player can’t do anything – it means training smarter, not harder, while symptoms persist. Physical Therapy (PT): A targeted physical therapy program is crucial for most athletes with FAI. The goals of PT are to improve hip range of motion, strengthen the surrounding muscles, and correct movement patterns that might be exacerbating the impingement. A therapist will typically work on stretching tight structures (like hip flexors, IT band, glutes) and guiding the athlete through exercises to strengthen the glutes, core, and hip rotators. By increasing flexibility and strength in the right areas, PT can reduce stress on the injured labrum or cartilage , often alleviating pain . Therapists also train athletes to avoid compensatory movements – teaching proper hip hinge, proper skating form, etc. Over time, many players can return to play after a course of PT, with improved mechanics and reduced pain. Medications: Nonsteroidal anti-inflammatory drugs ( NSAIDs ), like ibuprofen or naproxen, are often recommended to help with pain and reduce inflammation in the joint. These can be particularly useful in the acute phase or after intense activity. They are not a long-term solution, but can make an irritated hip more comfortable as other treatments take effect . Always use under guidance of a doctor, especially for younger athletes, and watch for side effects (stomach upset, etc.). Injections: If rest, therapy, and NSAIDs aren’t sufficiently relieving the pain, a doctor might recommend a corticosteroid injection into the hip joint (often done with imaging guidance to ensure proper placement). The steroid is a strong anti-inflammatory; an injection can provide significant relief of pain and reduce inflammation in the joint. It may also help a player participate in rehab more comfortably. However, this is usually a temporary fix – the effects can last for weeks to a couple of months. It’s also worth noting that while injections can ease symptoms, they do not fix the underlying bone impingement ; they are a way to manage symptoms or buy time in season. (As mentioned earlier, an anesthetic is usually given with the steroid, which can double as a diagnostic test for FAI .) Team physicians will usually limit how often cortisone injections are given in a hip due to potential side effects on tendons and cartilage with repeat doses. Ongoing Management: Some athletes with FAI can manage their condition long-term without surgery. This might involve continuing a dedicated routine of stretching and strengthening, modifying their training schedule to allow more recovery days for the hip, and being vigilant about any uptick in symptoms. They might also use modalities like ice, heat, or anti-inflammatory creams post-activity for relief. The key is that conservative management should keep the player’s pain at a minimal and manageable level while preserving or improving function. If despite these measures the pain is interfering with play or daily life, then more invasive options are considered. Surgical Management: When Surgery is Considered: If an athlete has persistent hip pain from FAI that does not respond to conservative treatments , or if imaging shows significant damage (like a big labral tear or cartilage injury), surgery may be recommended . In high-level athletes or those with clear bony deformities, early surgery might be advised to prevent further damage. The decision comes down to quality of life and goals – for a competitive hockey player aiming to continue playing at a high level, surgery is often the definitive fix for symptomatic FAI. Hip Arthroscopy (FAI Surgery): The most common surgical approach for FAI today is arthroscopic hip surgery . This is a minimally invasive procedure where the surgeon makes 2-3 small incisions (portals) and inserts a camera and instruments into the hip joint. Through these tiny incisions, the surgeon can reshape the bones and repair soft tissues . Specifically, the surgeon will trim the bony prominences causing impingement – shaving down the cam bump on the femoral head and/or trimming the acetabular rim in a pincer lesion . They will also address any labrum or cartilage injury: the torn labrum can be repaired (stitched back to the acetabulum) or debrided (smoothed), and any frayed cartilage can be cleaned up. The goal is to restore a more normal hip shape so the femur can rotate freely without catching. Arthroscopic FAI surgery is typically done outpatient (no overnight hospital stay). Open Hip Surgery: In rare cases with very severe deformities, an open surgery (with a larger incision) might be needed, but this is uncommon now given advances in arthroscopy. Open surgery may also be needed if there is extensive arthritis (sometimes a different procedure or even hip replacement in older individuals, though that’s beyond athletic scenarios). For most hockey players, arthroscopy is the gold standard approach. Surgical Outcomes: The success rate for hip impingement surgery in athletes is quite high. Arthroscopic FAI correction can significantly reduce pain and improve function for the majority of patients. By fixing the impingement, it also helps prevent future damage to the joint that would have occurred with continued impingement . In the elite hockey world, studies have shown that over 90% of NHL players are able to return to play after hip arthroscopy for FAI, often within 6–8 months post-op . Many players not only come back, but do so at a performance level similar to before injury. The procedure is minimally invasive and, when done by experienced surgeons, has a low complication rate. Many athletes have no long-term limitations after recovery – aside from maybe avoiding the absolute extreme motions, they can skate, shoot, and train normally . However, it’s worth noting that if there was extensive cartilage damage before surgery, some symptoms (or risk of arthritis) might still persist. Surgery can correct the impingement, but it cannot fully “undo” any arthritis that has already started. Therefore, earlier intervention (before severe cartilage loss) tends to have the best outcomes. Overall, for a symptomatic player, hip arthroscopy is currently the most effective way to resolve FAI pain and allow a return to high-level hockey . Returning to Play After FAI Treatment Recovering from FAI and getting back on the ice is absolutely possible – most players do return to their sport – but it must be done carefully. Here are some tips and guidelines for return-to-play : Commit to Rehabilitation: The rehab process is the bridge between treatment (whether surgery or conservative) and playing again. Adhering to your physical therapy and rehab program is crucial. This will involve exercises to restore your hip’s range of motion, increase strength, and retrain balance and coordination. Early on, focus is on gentle range-of-motion exercises and reducing inflammation. Then it progresses to strength training (core, glutes, hip muscles) and eventually skating-specific drills. It’s important for the athlete to not skip steps – even if you feel okay, continue to follow the physio’s plan to ensure all aspects of hip function are fully restored. Remember that after surgery, there’s healing that must occur (bone and tissue need to heal), so there are phases where certain movements are restricted for a while. Rushing back too soon can jeopardize the repair. Think of rehab as part of your training; attack it with the same intensity and focus as you would a workout or practice. Gradual On-Ice Progression: Returning to hockey should be done in phases . Even after you’re cleared to start skating, it should be a stepwise increase in intensity and complexity. For example, you might start with light skating or stickhandling drills with no contact. If that goes well (no pain or swelling later), you progress to more intense skating, like sprint drills or direction changes. Next might be practice in full gear but without full contact scrimmage. Then controlled contact drills, and finally full scrimmage and game situations. This progression could span several weeks. A guideline often used is: you must be able to complete each step pain-free (or with only mild soreness) before advancing to the next. If a certain level causes pain, you scale back and stay at that level a bit longer. This graduated approach ensures you’re not overloading the healing hip. Criteria for Full Return: Sports medicine professionals now often use criteria-based benchmarks to decide if an athlete is ready for full return to play, rather than just an arbitrary timeline. Some criteria include: achieving near-normal hip range of motion compared to the uninjured side, at least 90% strength of the hip musculature (often measured in the clinic with specific tests), and the ability to perform sport-specific movements at full speed without pain. There are also functional tests – for instance, one group developed a “Vail Hip Sports Test” which includes single-leg squats, lateral movements, and other dynamic tasks to gauge the hip’s readiness . Athletes may also fill out questionnaires about confidence in the hip. All of these help ensure that when you go back to competition, you’re truly ready and at low risk of re-injury . Practically speaking, clearance will be a team decision: the surgeon/doctor examines the hip, the physical therapist/athletic trainer tests your function, and you, as the athlete, report how you feel. Only when everyone is confident should you return to full play. Typical Timeline: Recovery time varies per individual. For conservative treatment (no surgery), a player might rehab for several weeks to a couple of months until symptoms are controlled and then return if pain allows. After hip arthroscopy , timelines are often on the order of a few months: many athletes are jogging or doing light skating by 3–4 months post-op, and return to competitive play usually between 4 to 8 months after surgery, depending on the extent of repairs and the demands of their position. High-level hockey players tend to push toward the earlier side (5–6 months), but it really must be individualized. Studies of professionals report that over 90% of players return to sport within one year of surgery, with the average around 6–7 months . Patience is key: coming back too early can lead to setbacks, whereas taking the time to properly heal and train means you’ll come back stronger and more durable. Psychological Readiness: Don’t overlook the mental aspect of returning from a hip injury. It’s common to have some anxiety about whether the hip will hold up, or to subconsciously guard your movements. Part of rehab in later stages is doing sport-simulation drills to rebuild confidence. Working with trainers and possibly sports psychologists on mental strategies can help. You want to return to play mentally prepared and confident in your body, not second-guessing every move. Post-Return Maintenance: Once back in action, the work isn’t completely over. It’s wise to maintain the hip exercises that got you there – keep doing your stretching routine, your glute/core strengthening, etc., as part of your normal fitness program. This will help keep the impingement from flaring up again. Also, continue to communicate with coaching and medical staff about how the hip feels. Often, players will have periodic check-ins or maintenance physio sessions. Some might benefit from occasional manual therapy or massage to keep hip muscles limber. Essentially, you should treat your hip health as an ongoing priority. Many athletes incorporate dynamic warm-ups and cooldown stretching permanently after an injury, which in fact can enhance overall performance and injury prevention. Adjustments as Needed: In some cases, players may need to adapt certain things even after full return. For example, a goalie might alter their butterfly technique slightly to reduce extreme hip rotation, or a skater might adjust their training regimen to include more off-ice recovery. These adjustments are not a sign of weakness but of smart management – playing to your strengths while protecting a vulnerable area. Fortunately, after successful treatment, most players can perform at essentially the same level as before. Career longevity after FAI surgery is generally good; studies show players continue playing without a significantly shortened career on average . The bottom line is, returning to hockey after FAI is highly achievable . By following medical guidance, doing the rehab, and not rushing the process, players often come back feeling relief from pain and even improved hip mobility, which can enhance their game. Key Takeaway FAI is a common hip issue in hockey players due to the demands of the sport, but with awareness and proper management, its impact can be minimized. Educating players, coaches, and parents about the symptoms (like persistent groin pain and stiffness) and the importance of early intervention is crucial. Through prevention strategies (proper warm-ups, training balance, and not overloading young hips) we can reduce the occurrence of debilitating hip problems. And for those who do develop symptomatic FAI, modern diagnosis and treatment options – from targeted physio programs to advanced arthroscopic surgeries – offer excellent outcomes. With a structured rehab and return-to-play plan, hockey players with FAI can successfully get back to the sport they love, stronger and smarter about their hip health. Playing through pain is not a badge of honor when it comes to FAI; addressing it early prolongs careers and preserves quality of life . By having these talking points accessible, we empower the hockey community to recognize and react to FAI in a way that keeps athletes healthy and on the ice for the long term. References Powers CM, et al. (2020). Rehabilitation strategies for FAI and post-arthroscopy patients. J Orthop Sports Phys Ther, 50(3), 123–135. Ayeni OR, et al. (2012). Femoroacetabular impingement in elite ice hockey players. Journal of Bone & Joint Surgery, 94(10), e58. Agricola R, et al. (2013). Development of Cam-type deformity in adolescent and young male soccer players: a prospective cohort study. Am J Sports Med, 42(4), 798–806. Philippon MJ, et al. (2014). 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By IIC2FRhivRRLOxIPEdhpmzNHnGG3 February 1, 2026
Managing Hip Pain in Hockey Players: Symptoms and Strategies
By Dr. Jamie Phillips February 1, 2026
As a former professional hockey player turned Doctor of Physical Therapy in Grand Rapids, I’ve learned one crucial lesson: a flexible upper back can make all the difference on the ice. In this comprehensive guide, we’ll explore why your thoracic spine (the upper/mid-back) matters so much, how stiff upper-back mobility could be holding you or your players back, and what you can do to unlock your upper back for a stronger, safer game. Whether you’re a player looking to improve your slapshot, a parent wanting to keep your kid injury-free, or a coach aiming to optimize your team’s training, this article will shed light on the “Ghost Rehab” approach to thoracic mobility. We’ll cover what the thoracic spine is, common mobility limitations in hockey athletes, the impacts of poor mobility on shooting and skating posture, links between upper-back stiffness and shoulder or low back pain, actionable ways to assess and improve mobility, and the value of working with a sports-specific PT right here in Grand Rapids. Let’s dive in! What Is the Thoracic Spine and Why Does Upper Back Mobility Matter? The thoracic spine is the middle section of your spine – essentially your upper and mid-back, running from the base of your neck down to about the bottom of your ribcage . It’s made up of 12 vertebrae (T1 through T12) that attach to your ribs and allow your torso to twist, bend, and extend. In simpler terms, if you imagine your spine as three segments, the thoracic region is the part that gives you the ability to rotate your trunk and arch your upper back. (Internal graphic: a labeled anatomical image of the spine highlighting the thoracic region could be placed here to show the upper back area.) Unlike the neck (cervical spine) which is very mobile, or the low back (lumbar spine) which is built more for stability, the thoracic spine is designed for mobility. In fact, roughly 80% of the rotation in your trunk comes from your thoracic spine . Think about that – when you twist your torso to take a hard shot or to dodge a check, the majority of that rotational power should originate from your upper back. Hockey is a highly rotational, multi-planar sport, so if your thoracic spine isn’t moving well, you’re missing out on a huge chunk of potential movement. Mobility in this area matters because it affects how effectively you can perform key hockey actions . A mobile thoracic spine allows you to rotate farther and faster when shooting or passing, to maintain an athletic upright posture while skating, and to absorb or deliver hits safely by moving through the upper back instead of overstressing other areas. It also helps you breathe better on the ice – a less stiff upper back lets your ribcage expand more for improved airflow during those intense shifts. In short, the thoracic spine is a critical link in the kinetic chain of your body. If that link is stuck, the chain reaction of movement and force transfer in hockey won’t be as strong or as smooth as it could be. Common Thoracic Mobility Issues in Hockey Players If you’ve ever heard of “hockey posture,” you know it’s not exactly synonymous with perfect posture. Hockey players of all ages often develop a characteristic stance and habit that includes a rounded upper back and forward-leaning posture . There are a few reasons for this common thoracic mobility limitation in hockey athletes: On-Ice Positioning: Skating requires a forward-flexed stance – players crouch down low, leaning over the puck. Over time, spending hours in this bent-over position leads to an exaggerated upper-back curve (thoracic kyphosis) and tightness in the chest and shoulders . Essentially, hockey players end up “hunched” much like someone who sits at a computer all day, which can cause the thoracic spine to lose extension mobility (the ability to straighten or arch back). Muscle Imbalances: Hockey training and play often emphasize strong legs and powerful upper-body muscles, but sometimes neglect counterbalancing mobility and postural strength. For example, players might do lots of bench press and push-ups for shot power, building the chest and front shoulders, but if they don’t equally strengthen their upper-back muscles and work on flexibility, a muscle imbalance occurs . The result is tight pectorals and weak mid-back muscles, which pull the shoulders forward and stiffen the upper spine (a classic “upper crossed syndrome” posture) . Lifestyle and Habit: Many hockey players, especially youth and student-athletes, spend a lot of time off the ice sitting – in class, doing homework, playing video games, etc. Prolonged sitting with slouched posture reinforces that rounded thoracic position. Even goalies, who have unique stance demands, often hunch over when off the ice. By the time a player hits the ice for practice, their upper back may already be in a stiff, flexed state. Protective Gear and Repetition: The gear (pads, tight jerseys) and repetitive motions can also play a minor role. While necessary for safety, equipment can slightly restrict full movement, and doing the same skating motion or shooting drills thousands of times can cause certain ranges of motion to tighten up if not counteracted with mobility work. Over years of playing, I’ve seen these factors combine to create athletes with impressive lower-body power but surprisingly limited upper-back mobility. As a former pro player, I can admit I wasn’t doing thoracic mobility drills in my younger days – and I felt the difference. I’d often finish a game with a burning feeling between the shoulder blades or a stiff neck, classic signs that my upper back was locked up and other areas were compensating. The bottom line is that hockey players are prone to a forward-rounded, stiff thoracic spine. This “hockey hunch” might seem like just a posture issue, but it directly affects performance and injury risk, as we’ll discuss next. The good news is that once you recognize it, you can address it. (Internal graphic suggestion: perhaps an illustration or photo of a player with rounded shoulders vs. a player with a more upright posture, to visualize the difference. A caption might point out the rounded upper back common in hockey.) How a Stiff Upper Back Hurts Your Shooting and Skating Poor thoracic mobility isn’t just an aesthetic posture problem – it has real performance consequences on the ice . Two of the biggest areas affected are your shooting (and other rotational skills) and your skating posture/technique. Reduced Shot Power and Accuracy When you wind up for a slapshot or snap into a wrister, a significant amount of power comes from the rotation of your torso. Ideally, your upper back and shoulders turn to generate torque while your hips and legs drive into the ice. If your thoracic spine is stiff and cannot rotate or extend well, you’ll have a shorter, restricted wind-up and follow-through . Essentially, you’re trying to shoot with a parking brake on. Research and coaching insights consistently note that a lack of thoracic rotation means missing out on range of motion that could generate more force. In other words, a limited t-spine = a limited shot. A hockey player who is tight through the upper back is “missing range of motion that they could be using to generate more force” in their shot mechanics . Beyond raw power, shooting with a stiff upper back can throw off your accuracy and technique. You might compensate by overusing your arms or wrists, or by rotating more through the lumbar spine (lower back) and hips. These compensations not only reduce efficiency, but also can strain areas not meant to handle that load. I often tell players: if you want a harder, smoother shot, you need to be able to coil and uncoil through your core – and the thoracic spine is the core of that core, so to speak. In my own experience, early off-season mobility training makes my shot feel “cleaner” and more effortless once I hit the ice, because my upper body rotation is fluid instead of tight. This anecdote is backed up by others; in fact, some pro players report that after focusing on restoring mobility, their shot “feels smoother or cleaner” even before they start heavy strength training . Here’s a quick test you can try: slump forward and hunch your upper back, then attempt a torso rotation (as if taking a shot) – next, sit up tall or gently arch your upper back and rotate again. You’ll likely notice you can turn much farther when your spine is extended. Kevin Neeld, a well-known strength coach in hockey, points out that an inability to extend the thoracic spine “ will limit rotation through this area… visibly limiting your ability to generate rotational power while shooting ” . This is a perfect summary – less upper back mobility = less rotation = weaker shot. Skating Posture, Speed, and Agility Efficient skating isn’t just about strong legs; your upper body position plays a big role too. Watch an elite skater and you’ll notice they have a slight forward lean but a relatively stable, straight back – not a collapsed hunch. If your thoracic spine is overly rounded and tight, maintaining an optimal skating posture becomes difficult. You may find yourself too hunched over , which can shorten your stride and affect balance. A stiff upper back can also impede how well you counter-rotate your shoulders against your hips during crossovers or quick turns. Good players subtly twist through the torso when changing directions or executing tight turns – if your torso can’t rotate, you’ll rely solely on your legs and might be a bit slower in transitions. Furthermore, a player with limited upper-back mobility often has trouble keeping their chest up while in a low skating stance. This can lead to excessive forward head position and can fatigue your back muscles faster as they strain to support that posture. It might also affect your vision on the ice; players with a very rounded back tend to hang their head down more, whereas a more upright upper back allows you to keep your head and eyes up (key for awareness and avoiding big hits!). And let’s not forget goalies – if you’re a goalie, thoracic mobility is gold for you too. A goalie’s save movements (think of quickly rotating the shoulders to glove a top-corner shot or twisting during a scramble) heavily involve the thoracic spine. Goalies also deal with a forward flexed posture in the stance, and if their upper back is rigid, they may end up overusing the low back when dropping into or rising from the butterfly. I’ve worked with goalies here in Grand Rapids who improved their post-save recovery speed (popping back up or moving laterally) once we improved their upper-back flexibility and strength. It allowed them to move more freely rather than feeling “stuck” in a crouch. In summary, a stiff thoracic spine can rob a skater of stride length and power, slow down rotational skills like shooting or quick turns, and even hamper a goalie’s mobility in the crease. On the flip side, improving thoracic spine mobility can unlock better athleticism – a more powerful shot, a lower yet controlled skating stance, and fluid upper-body movement that complements your footwork. It’s one of those sneaky performance boosters that many hockey players don’t realize they’re missing. Injury Prevention: Upper Back Mobility, Shoulder Health, and Low Back Pain Beyond performance, there’s a huge injury prevention angle to thoracic mobility. The way your upper back moves (or doesn’t move) can directly contribute to common hockey injuries, especially in the shoulders and lower back . Let’s break down these connections: Shoulder Issues and the “Hockey Hunch” Hockey is notorious for shoulder injuries – separations, dislocations, rotator cuff strains, you name it. While big collisions or falls can injure shoulders, a less obvious contributor is poor posture and mobility in the upper back. When your thoracic spine is stuck in a rounded position, your shoulder blades (scapulae) tilt forward around your ribcage. In this slouched posture, the shoulders themselves sit in a forward, internally rotated position (picture the typical hockey player slouch with shoulders almost pointed forward). This alignment is problematic for a couple of reasons. First, it alters the mechanics of the shoulder joint and can lead to impingement – essentially the rotator cuff tendons getting pinched, causing pain over time. A tight upper back often goes hand-in-hand with a tight chest and weak upper back muscles, which means the shoulder blade doesn’t glide properly when you raise your arm. Many players with shoulder pain find relief after improving their posture and thoracic mobility because it allows the shoulder blade to move more freely and the ball-and-socket joint to align better. Second, that rounded posture increases injury risk during contact. As coach Kevin Neeld illustrates, a player with forward-rounded shoulders is at higher risk if hit from the side or behind. Why? Because the shoulder blade isn’t in a strong position against the ribcage, so the force of impact isn’t absorbed by the torso; instead, it’s more directly taken by the shoulder joint and its ligaments . Neeld notes how a hit to a rounded-shoulder player can drive the arm backward in a vulnerable position, whereas a player with a more retracted (pulled back) shoulder posture will better distribute that force across the body . In practical terms, improving your upper back mobility and posture (being able to extend your thoracic spine and pull those shoulder blades back) creates more structural stability to withstand hockey impacts and can reduce the chances of things like shoulder dislocations. It’s no surprise that part of hockey injury prevention PT in Grand Rapids – or anywhere – for shoulder problems often includes working on thoracic spine mobility and postural strength. By loosening the upper back and strengthening the mid-back muscles (like the rhomboids and lower traps), we set the shoulders in a safer position. I always tell players: your shoulders will thank your upper back for doing its job! Low Back Pain and Thoracic Stiffness Lower back pain (LBP) is extremely common among hockey players – some studies estimate around 60–85% of hockey players will experience significant low back pain in their career . It affects everyone from youth players to NHL pros. There are many causes (from disc issues to muscle strains), but a major contributing factor is often poor movement mechanics due to – you guessed it – a stiff thoracic spine and/or hips. Here’s the chain reaction: If your upper back isn’t mobile enough to allow the rotation or extension a certain movement needs, your body will get that movement from elsewhere to perform the task. Often the “elsewhere” is the lumbar spine (lower back) , which isn’t built for large amounts of rotation. Normally, we want the hips and thoracic spine to handle most of the turning, with the low back remaining relatively stable. But if the thoracic segment is like a brick, when you twist (say, winding up for a slapshot or quickly turning to chase a puck), the lower back will twist more to make up the difference. This excessive lumbar rotation and torquing is a recipe for pain and injury . As one hockey training resource put it, if you lack mobility in the hips and thoracic spine – the areas meant to rotate – “you’ll be forced to torque through your lumbar spine” and repeatedly doing so can quickly lead to lower back pain . Skating posture ties in here too. A very rounded upper back can tilt your pelvis and increase the arch in your lower back when you’re bent over, placing extra strain on the lumbar spine throughout each stride . Over time, this contributes to overuse injuries. Many players with chronic low back issues have stiff upper backs; improving thoracic extension (being able to straighten the upper back more) often reduces the constant stress on the lower back during skating. Let’s visualize: imagine two players taking a slap shot. Player A has great thoracic rotation – as he winds up, his shoulders and chest turn far relative to his hips, storing energy, and then unwind into the shot. His lower back moves only minimally. Player B has a very tight upper back – he can’t rotate through the torso much, so to complete his backswing he unconsciously twists through the lower back and also over-rotates his hips. As he shoots, that extra lumbar twist combined with the force of the shot puts high stress on his spine. Player B is the one more likely to skate off complaining of a twinge in his back . If this pattern repeats over years, you can see why we have so many hockey players with nagging low back pain or even stress injuries like spondylolysis (stress fractures in the spine, which have been found in many young hockey players). The good news is that by addressing thoracic (and hip) mobility, we can often alleviate the strain on the low back. I’ve had players report their back pain diminished greatly once they started a regular routine of upper back mobility drills and core stability work. It’s all about restoring the proper movement pattern: use the hips and upper back for motion, spare the lower back. In short, ensuring good thoracic spine mobility is like giving your body better shock absorbers and hinges . Your shoulders and low back won’t have to take all the hits – literally and figuratively – when your upper back is doing its job. This is why any upper back rehab in Grand Rapids for hockey athletes (like what we do at Ghost Rehab and Performance) pays keen attention to the thoracic spine. It’s often the missing link in rehab protocols for shoulder and back issues. How to Assess Your Thoracic Spine Mobility You might be wondering, “Okay, do I have a thoracic mobility problem?” Assessing your thoracic spine mobility can be relatively straightforward with a couple of at-home or on-ice tests. Here are a few simple ways to gauge your upper back flexibility: Seated Rotation Test: Sit on a chair or on the bench in the locker room, cross your arms over your chest (or hold a hockey stick behind your neck across your shoulders), and keep your hips facing forward. Now rotate your upper body to the right and to the left as far as you can. What to look for: You should ideally see about 45 degrees of rotation to each side (meaning your chest turns roughly halfway toward facing completely sideways). If you can barely turn to, say, 30 degrees or you notice one side is much more limited, that’s a sign of restricted thoracic rotation. Also pay attention to whether your hips or knees start to move – if they do, it means your lower body is trying to help because your upper back might be too stiff to do it alone. Wall Angel or Wall Slide: Stand with your back flat against a wall, feet a few inches from the wall. Try to press your lower back lightly into the wall (to eliminate excessive arching). Now raise your arms up to shoulder height, bend your elbows, and try to flatten your arms and wrists against the wall in a “W” position. Slowly slide your arms up overhead like making a snow angel, keeping as much of your arms against the wall as possible. What to look for: If your thoracic spine is very stiff, you’ll struggle to keep your arms and upper back on the wall – your lower back might arch or your arms will come off the wall as you raise them. This indicates limited thoracic extension and possibly tight chest/shoulder muscles. It’s a great test for the interplay of shoulder and upper back mobility. Thoracic Extension Test on Foam Roller: This one doubles as a mobility drill (we’ll talk exercises next) but can be used as a before-and-after check. Lie on your back on the floor with a foam roller positioned horizontally under your upper back (around shoulder blade level). Support your head with your hands and gently try to arch backward over the roller. What to look for: Do you feel a very hard stop, or is it painful? That could indicate significant stiffness. If you repeat this a few times and it gradually eases, that’s a good sign you’re mobilizing the area. If it barely budges, you likely have a mobility limitation. The “Hunched vs. Straight” Rotation Demo: I mentioned this earlier – it’s more of a demonstration than a formal assessment, but it’s eye-opening. Stand or sit and round your upper back as much as you can (simulate that bad hockey posture). Now try to rotate your shoulders to one side (like a slow-motion shot or a golf swing). Measure in your mind how far you got. Next, reset, stand tall and even slightly arch your upper back (think proud chest). Now rotate again. Most people are noticeably more mobile in the second scenario. If you find no difference between slouched and upright, you might already have good mobility (or conversely, you’re so tight that even upright posture is limited – which is rarer). If you find a big difference, it tells you how much posture and thoracic extension affect your rotation. If these self-tests raise any red flags – for example, you find a big asymmetry (you rotate much further to one side than the other) or you just feel generally “stuck” – it might be time to work on your mobility (and consider a professional assessment). Coaches and parents, you can also observe your players: do they have that perpetual hunch? Do they complain of back tightness or have a noticeably limited range when shooting or turning their upper body? Those could be clues. Keep in mind, a formal evaluation by a physical therapist or sports performance specialist will give the most detailed info. Here at Ghost Rehab and Performance, for instance, we use a comprehensive mobility screen for our hockey players, measuring thoracic rotation in degrees and checking posture, among other things. The advantage of a pro assessment is we can differentiate whether it’s truly a joint restriction in the spine, muscular tightness, or some stability issue – and then tailor the plan accordingly. But even these simple tests above can empower you with awareness of your own body. Exercises to Improve Thoracic Spine Mobility for Hockey Players Improving your thoracic mobility is absolutely doable with consistent effort – and it doesn’t require any fancy equipment beyond perhaps a foam roller and a stretch band. Here are some of my go-to upper back mobility exercises that I prescribe to hockey players, from youth to adult. (Remember, perform these with good form and without pain. If something hurts, ease off or consult a professional.) 1. Quadruped T-Spine Rotation (All-Fours Rotation): Start on your hands and knees (quadruped position) with hands under shoulders and knees under hips. Place one hand lightly behind your head. Keeping your lower back still and core engaged, rotate your upper back to bring the elbow (of the hand behind your head) up toward the ceiling, then slowly rotate downward trying to reach that elbow toward the opposite arm. Imagine you are opening and closing like a book. Do 5–8 repetitions, then switch sides. Benefit: This drill isolates thoracic rotation while keeping your low back stable. It’s a staple in many hockey training warm-ups to “unlock” the upper back. You can make it harder by holding a light band or weight with the moving arm (to add resistance or assistance as in a banded rotation). 2. “Open Book” Stretch (Side-Lying Thoracic Rotation 90/90): Lie on your side with hips and knees bent 90 degrees (knees stacked). Extend your arms in front of you, palms together. Keeping your knees touching the floor (you can put a rolled towel between your knees to help), rotate your top arm and upper back to open up toward the other side, as if opening a book. Try to gently press the top shoulder toward the ground (you may not touch it, and that’s okay) while keeping your low back still and knees down. You’ll feel a stretch through your chest and mid-back. Hold for a second at the end range, then return to start and repeat 6–10 reps each side. Benefit: This classic stretch is excellent for improving rotational flexibility. It addresses the tight chest muscles and lets the upper spine twist. You’ll often feel a great stretch between the shoulder blades. Over time, you’ll see that you can drop that shoulder closer to the floor as mobility improves. 3. Thoracic Extension on Foam Roller: Take a foam roller and place it perpendicular to your spine (horizontally under your upper back). Lie on it and cradle your hands behind your head (to support your neck). Starting with the roller around the bottom of your ribcage area, gently extend back over the roller – as if trying to arch your upper back over it. Do small motions, move up a little higher on the back, and repeat. Don’t crank on your neck – focus on the upper back bending. You might get a few pops or cracks (that’s fine as long as it’s not painful). Spend a minute or two working different segments of the thoracic spine. Benefit: This exercise helps improve thoracic extension (counteracting that forward hunch). It’s like an antidote to slouching. Improving extension will also help your rotation (since the spine often needs to extend a bit to rotate fully). Many hockey players love using the foam roller after practices and games to relieve that tight upper back feeling – it’s both a mobilizer and a self-massage tool. 4. Cat-Cow (Segmented): This yoga staple can be tweaked to really target the thoracic region. On hands and knees, slowly go from an arched back (cow position) to a rounded back (cat position). The key is to do it segment by segment. Initiate the movement from your upper back: when arching, imagine leading with your chest/breastbone moving forward and up, and when rounding, imagine just the area between your shoulder blades pushing toward the ceiling. Do 10 slow cycles. Benefit: By focusing on the upper back, you encourage each vertebra to move. This improves overall spinal mobility and also gives a nice stretch to the back and shoulder muscles. It’s a gentle way to get things moving before deeper stretches. 5. Wall Thoracic Rotations (Standing Wall Openings): Stand sideways a couple of feet from a wall in a partial squat or athletic stance. Keep the foot closer to the wall forward and other foot back for a staggered stance (mimicking a hockey stride position). Hold your hands together straight in front of you, then rotate your torso and reach the far hand toward the wall behind you, following your hand with your eyes. If possible, touch the wall behind with your fingertips. Your hips can turn a bit, but try to keep the movement mostly in your trunk. This can also be done in a half-kneeling stance. Do 6–8 reps each side. Benefit: This dynamic drill is great for warming up before games. It ties together balance and rotation, and it’s particularly useful for simulating how you need to rotate in skating or shooting while maintaining balance through your legs. These exercises are just a starting point. There are many more (like thread-the-needle, lumbar-locked rotations, etc.), and variations with bands or weights to progress the mobility into controlled strength. The key is consistency: doing a few thoracic mobility drills daily or at least in every warm-up will yield the best results. Mobility is best improved with frequent “micro-doses” rather than occasional marathon stretching sessions . In practice, that could mean 5-10 minutes of upper-back focused stretches each day or every other day. Also, don’t forget to work on what’s around the thoracic spine: that means your shoulder blade muscles (strengthen those with rowing exercises, “Y-T-W” exercises for scapular control, etc.) and your core muscles, especially the obliques which help with controlled rotation. A strong core will help you use your new mobility in a safe, powerful way. And hip mobility, though a topic of its own, goes hand in hand with thoracic mobility – athletes with loose hips and upper backs usually spare their lower backs a lot of grief. Finally, make it hockey-specific when you can. After or even during your mobility drills, do some hockey movements that take advantage of it. For example, after doing open books and foam rolling, grab a stick and do some mock shooting movements or trunk rotations so your body learns to use that new range in a coordinated manner. In sessions at our clinic, we might finish with some medicine ball rotational throws or resisted cable rotations, which bridges the gap between mobility and functional hockey motion. This way, when you’re back on the ice, your body knows how to incorporate that improved flexibility directly into your slapshot, one-timer, or skating stride. Hockey Physical Therapy in Grand Rapids: Why Work with a Sports PT? By now, you can tell that thoracic spine mobility has a lot of moving parts (pun intended!). You can certainly make great progress on your own with the right exercises, but sometimes having an expert guide can accelerate the process and ensure you’re doing what’s best for your body. That’s where working with a hockey-specific physical therapist comes in. As someone who has lived the sport and now rehabs others, I firmly believe that specialized hockey physical therapy in Grand Rapids can be a game-changer for players serious about their performance and health. Here’s why teaming up with a sports-specific PT – especially a cash-based sports PT in Grand Rapids like Ghost Rehab and Performance – is so valuable: Expert Eyes on Your Movement: A PT who understands hockey can assess your mobility, strength, and technique in a way that translates directly to on-ice performance. We know what a proper skating stride and shooting form should look like, and we can spot where a limitation (like a stiff upper back) is affecting those skills. By doing a thorough evaluation, including tools like video analysis or movement screens, we pinpoint the root causes of any issues. For example, if you come in with shoulder pain or decreased shot power, we might discover the true culprit is poor thoracic rotation. That kind of insight comes from experience in hockey biomechanics. Individualized, Sport-Specific Plan: Working with a sports PT means your upper back rehab in Grand Rapids isn’t going to be a generic list of stretches printed off the internet. It will be tailored to you. If your T-spine is especially tight in one direction, we’ll focus there. If you’re a goalie vs a forward, we might emphasize slightly different drills (a goalie might need more work on extension and rotation in butterfly recovery positions, for instance). Because Ghost Rehab and Performance is a cash-based practice , we’re not constrained by short insurance-driven sessions or cookie-cutter protocols. We can devote the time to blending manual therapy (like hands-on joint mobilizations or soft tissue work to loosen those thoracic segments) with corrective exercises, then functional hockey drills. It’s a holistic approach – we treat the mobility issue and integrate it into your shooting, skating, and daily routine. Quick Access and Ongoing Support: In Michigan, you generally have direct access to physical therapy – meaning you don’t need a physician referral to see us. In a cash-based model, you can often get in quickly and start work right away on issues like this, rather than waiting weeks. This is huge if you’re in-season and need to address a problem promptly. Plus, a good sports PT will communicate with your coaches or trainers as needed and adjust your plan around your team schedule. Our goal is to keep you on the ice while we fix what needs fixing, whenever possible. We also serve as a resource for hockey injury prevention overall – consider us your guide not just for rehab, but for warm-up routines, recovery strategies, and performance optimization. Ghost Rehab and Performance, for example, prides itself on being “West Michigan’s premier hockey-specific performance physical therapy” (as many of our clients have called us). That means we’re as much about preventing the next injury and boosting performance as we are about rehabbing current aches. Hockey Culture and Trust: There’s something to be said about working with a clinician who “gets it” – who has blocked shots with their body, felt that third-period fatigue, or gone through a playoff grind. As a former pro, I speak the language of the sport. For younger athletes, that often helps them buy into the process more; they know I’m not just a PT tossing out exercises, but someone who has been in their skates. For parents and coaches, it gives confidence that the recommendations won’t inadvertently hurt performance – everything is geared to make them better on the ice. We’re going to incorporate things like stick handling, shooting drills, or on-ice movement into therapy when appropriate. In fact, I’ve even done on-ice sessions with some local players to directly work on translating improved mobility to skating technique. That level of sport specificity is hard to get in a general clinic. Long-Term Athletic Development: Perhaps most importantly, addressing thoracic mobility (and other issues) with a sports PT sets players up for long careers. We think in terms of longevity. For youth players in Grand Rapids, learning how to take care of their bodies now – how to warm up properly, how to do mobility work, how to recognize an oncoming injury – means they’ll have fewer serious injuries as they progress to high school, juniors, or college play. For adult rec players, it means enjoying the sport without constant pain and avoiding those surgeries that take you out of the game (or the office) for months. A sports PT can design a maintenance program that fits into your season and off-season, almost like having a personal coach for your physical health. This proactive approach is a hallmark of performance physical therapy. In the context of thoracic spine mobility, a hockey injury prevention PT in Grand Rapids will ensure that improving your upper back movement is part of a bigger plan: one that balances your entire body’s mobility, stability, strength, and technique. We don’t view the t-spine in isolation. For example, if we increase your rotation, we’ll also train your core to control that new motion (to make sure you’re stable and powerful in that range). We’ll check your hip mobility to complement the t-spine work, so your whole torso-hip unit is working optimally. And we’ll continuously loop back to how you’re performing on the ice – are shots getting harder, is your back pain decreasing, do you feel more upright and strong in your stance? Those functional outcomes are our north star. Finally, because we are a cash-based sports PT clinic in Grand Rapids , we operate with a lot of flexibility and personalization. Sessions can be longer, one-on-one, and focused on whatever will help you the most that day – maybe it’s an hour of manual therapy and guided drills, or maybe it’s a trip to the rink to evaluate your skating form. This model is all about value: you get highly specialized care that’s worth every penny in terms of keeping you on the ice and playing your best. We’ve had players tell us they avoided what they thought would be season-ending issues simply by coming in early for an assessment and nipping a mobility problem in the bud. In short, working with a sports-specific PT is like adding an expert teammate to your roster – one whose goal is to optimize you. If you’re serious about your hockey performance or if you’ve been frustrated by injuries, it might be time to enlist that help. The hockey physical therapy Grand Rapids offers through Ghost Rehab and Performance is rooted in firsthand hockey experience and proven rehab science. It’s a winning combo for our local athletes. Unlock Your Upper Back and Elevate Your Game By now, you should have a solid understanding that thoracic spine mobility isn’t just a footnote in hockey training – it’s a key chapter in the story of athletic success and durability. Unlocking your upper back can lead to a harder shot, more agile skating, and a body that stays injury-free through the long Michigan hockey season. It’s one of those areas where a little focused effort yields big returns on the ice. To recap briefly: The thoracic spine (upper back) is built to move, and hockey demands a lot of movement from it – about 80% of your trunk rotation, to be exact . Yet, hockey players often end up tight and limited there due to the nature of the sport (and lifestyle factors), developing the classic rounded “hockey posture.” This stiffness can sap power from shots, make your skating less efficient, and contribute to shoulder injuries and low back pain by causing your body to compensate in risky ways . The good news is you can improve it. Through targeted exercises and possibly guidance from a knowledgeable physical therapist, you can restore mobility to your upper back and integrate it into your game. As a former player who has felt the difference and a PT who now helps others achieve it, I encourage you to take action. Start incorporating those T-spine drills into your warm-ups. Be mindful of your posture during the day – ditch the slouch outside the rink so your body isn’t stuck in it on the rink. If you’re dealing with nagging pain or you’re not sure where to start, consider reaching out to a specialist. Sometimes a professional assessment and a few sessions of personalized coaching are all it takes to set you on the right path. Remember, hockey is a sport of details and marginal gains. Gaining an extra few degrees of rotation in your upper back or an extra bit of extension in your posture might not seem dramatic, but it can be the hidden advantage that improves your shot release or keeps you balanced through a big hit. In a game of inches and split-seconds, that matters! Your upper back mobility could be the missing link in unlocking your full potential on the ice. Don’t let it hold you back (literally). By unlocking the thoracic spine, you’re not just preventing pain – you’re actively boosting your performance and prolonging your playing years. That’s a win-win for any hockey player, parent, or coach. If you’re in the Grand Rapids area and need help with your mobility or any hockey-related injury, feel free to reach out to Ghost Rehab, We’re here to help our West Michigan hockey family stay strong, stay mobile, and stay in the game. After all, as we like to say, “strong core, mobile spine, better hockey.” Now go unlock that upper back and light up the ice!  References Neeld K. Does Your Shot Feel Off? It Might Be Your Upper Back. KevinNeeld.com. https://www.kevinneeld.com/does-your-shot-feel-off-it-might-be-your-upper-back/ . Published July 2, 2019. Hibbs AE, Thompson KG, French DN, Wrigley A, Spears IR. Optimizing performance by improving core stability and core strength. Sports Med. 2008;38(12):995-1008. doi:10.2165/00007256-200838120-00004 Borstad JD, Ludewig PM. The effect of long duration stretching on muscle extensibility and joint passive stiffness. 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