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Pistol Squat or Skater Squat - Which is Better?

[embed]https://www.youtube.com/watch?v=5m32gpo5AG4[/embed]

In this short video we discuss a commonly performed exercise in some group exercise or fitness classes as well as sport performance training programs - the pistol squat.

The pistol squat is a challenging exercise. For some it is a competitive exercise and one that they must train and improve.

However, what if you aren't training to compete in an event that includes pistol squats? What if you are training for general fitness or sport performance and want a better alternative? An alternative that will build great single-leg strength and control, and have better transfer to improving athleticism, speed, all while keeping the joints healthier?

Enter the skater squat.

You see for many people, the pistol squat can contribute to unnecessary compressive forces on the spine and hips that can lead to pain and movement intolerances. This is an unwanted result of training or exercise. Who wants to spend weeks working out only to takes weeks off due to pain or injury?

And these reasons are exactly why the skater squat becomes a better alternative to the pistol squat. You get a uniquely challenging single-leg exercise that builds strength, is more friendly to the spine and hips, and more closely mimics the dynamics of running, sprinting and skating.

As always, Gallagher Performance is here to answer your questions when it comes to exercise, rehabilitation, chiropractic, and sport performance. Watch the video to learn more.

More related reading:

https://gallagherperformance.com/ultimate-runners-guide-to-injury-prevention/

https://gallagherperformance.com/the-best-exercise/

https://gallagherperformance.com/solution-long-term-improvement-back-pain/

https://gallagherperformance.com/advanced-training-for-elite-athletes/

Ultimate Runner's Guide to Injury Prevention

Running season is fast approaching. Spring and summer have a host of events from marathons, to half marathons, to triathlons, to various course races. Many have likely already started their training. And then of course we can’t forget those who will simply take up running in hopes of shedding unwanted body weight for the summer.

Whether you are taking up running to become healthier and lose weight, to qualify for Boston, or if you have your eyes set on crossing a race off your bucket list, your routine training will either build you toward your goal or you will be bogged down with nagging injury after nagging injury.

When you consider that 65-80% of runners will sustain an injury during the running season, clearly there is something that needs addressed to help runners cut down their chances of being sidelined or having recurrent issues during their training.

If there is one thing that most people know about me is that I’m not a distance runner. I’ll make that disclaimer up front. Never been a distance or endurance athlete and never will be. I live in the power-speed world of athletics. However, as a former hockey player and strength athlete, one of favorite past times and off-season training methods was (and still is) sprints.

Between my background as a chiropractic rehabilitation specialist as well as personal and professional experience in speed development, I’ve learned a thing or two about what it takes to build a body that is resilient to the demands of running/sprinting rather than breaking down. And at Gallagher Performance we have developed a reputation for not only building speed demons, but keeping their body healthy and ready in the process.

So what gives? Why is someone like me writing an article about running?

The name of the game in athletics is physical preparation and the same can be said of distance running. Unfortunately there seems to be a misunderstanding in that one only needs to run to be successful at running. While this may be true for some, there are numerous others who simply cannot solely rely on running in order to be prepared to run. Simply just running to be ready to run is an oversimplification of arguably the most complex human movement.

If that sounds ridiculous or confusing, let me explain my logic.

Most runners will eventually encounter their fair share of aches, pains, strains and overuse injuries. Plantar fasciitis, shin splints, tendonitis, stress fractures, runner’s knee, IT band syndrome and joint pain are common to the running community. Once training demands exceed what is one physically prepared for, this is where things start to go south.
These conditions may be present for a number of reasons, including any of the following:

  • Sharp increases in training volume
  • Foot wear
  • Gait mechanics
  • Strength deficits
  • Joint dysfunction or fixations
  • Improper motor control of lower extremities and/or torso
  • Overtraining
  • Inadequate physical preparation
This article is not intended to address training theory or programming as it relates to preparation for an endurance event, foot wear or gait mechanics. What I want to address is the reality that one must be physically prepared for a specific event and this requires that a runner must possess the necessary prerequisites in movement as it relates to running.
And no, being physically prepared doesn’t mean being fit or having a certain level of fitness. Being physically prepared for a distance running event goes far beyond one’s aerobic fitness.

To get my point across, allow me to use the analogy of intelligence. One can be intelligent yet being prepared for an exam in Civil War History is another issue. Now one may take that exam and it could go very well or horribly bad, but it doesn’t change the fact that the individual is still intelligent. What it means is they were either prepared or unprepared for that specific exam.

So while one may be “fit”, it does not mean they are physically prepared for a specific physical event. Even if one lifts weights, bikes, and jogs on a regular basis it doesn’t mean they are ready for a marathon. And most understand this, as they will specifically prepare for a marathon by training for it over a number of weeks.

But what is one to do to make sure their body is ready for the demands of running other than simply running? I mean that’s all one needs to do right? Just get out there and put in the miles right?

Yes, you will have to put your time in on the road or track. That’s a given. But there are also other considerations to make beyond the traditional means of endurance training (see this article here - 2 Common Misconceptions in Endurance Training).

The reality is running is tremendously demanding on the body and it’s even more so from a distance standpoint because of the need for far greater precision in running form, mechanics and motor control of the feet, ankles, hips and torso.

The need for strength and precision in movement control for the distance runner should make training strength and precision in movement control a high priority. This skill of awareness or proprioceptive ability can be trained through exercise. And this brings us to the heart of the article – ensuring you are physically prepared for running. Ensuring that your feet/ankles, hips and torso are more resilient against the cumulative physical demands of running.

Understand that I realize, like any competitive athlete, the cumulative trauma of the competitive season adds up and it is a challenge to stay 100% healthy. There are a number of variables that go into keeping one healthy. The hope is that through this article you gain an understanding of how training and maintaining certain physical abilities through specific exercises will not only help to offset what your body endures on the road, but make it more resilient as well.

The following exercises will serve to build the physical foundation that will help one stay healthier during training and the competitive running season, thus making sure your physical preparation meets or exceeds training demands.

1. Respiration with Trunk Stabilization
[embed]https://www.youtube.com/watch?v=UxONX_8ZGkI[/embed]

2. McGill Side Bridge
[embed]https://www.youtube.com/watch?v=NJhqDATf5_k[/embed]

3. Low Oblique Bridge with Hip Differentiation
[embed]https://www.youtube.com/watch?v=IXc7wr3oBkY[/embed]

4. Single Leg Balance & Swaps
[embed]https://www.youtube.com/watch?v=Exz8f-ngKPM[/embed]

5. Pallof Press
[embed]https://www.youtube.com/watch?v=i-0HIVP5ZQA[/embed]

6. Plank Progressions
[embed]https://www.youtube.com/watch?v=aKWc4XJ9xKI[/embed]

7. Box Squat
[embed]https://www.youtube.com/watch?v=WJh3xyMWj7g[/embed]

8. Romanian Deadlift
[embed]https://www.youtube.com/watch?v=l4Mk6OEE2RQ[/embed]

9. Lunge Matrix
[embed]https://www.youtube.com/watch?v=UGdmImUcQFw[/embed]

10. Power-Speed Drills
[embed]https://www.youtube.com/watch?v=Ti5-hTsOC-8[/embed]

That's a Wrap
While this list is far from comprehensive, it will serve as a general template to help runners to address basic physical prerequisites needed to stay healthy and train with minimal risk of setbacks. This is general template for physical preparation of a runner. Remember, like any athlete, physical preparation serves as your foundation as a runner. Take time to develop your physical preparation. Take time to develop your strength and movement control as it will allow you to get more out of training and keep your body healthy in the process.

The Hidden Causes of Sports Injury

The purpose of this article is to provide some basic information about the importance of understanding the role posture and function have in pain, injury, and movement dysfunction. The hope is that you will gain an understanding of why your chiropractor or therapist must evaluate and bring into consideration issues that may not seem related to your pain.
Patients come to us with symptoms and we want to get to the source of their symptoms. In addition to providing relief through manipulative therapy and treating muscular adhesions, it can prove to be incredibly valuable to identify the source of their symptoms. In my experience, the source of a client or patient’s symptoms is often found in painless dysfunction of the motor system.

All too common, providers become reductionist in their evaluation and treatment of the motor (aka musculoskeletal) system. In order to provide long-term solutions and minimize reoccurrences, a holistic or global approach to evaluating functional capacity is needed to identify what is driving pathology in the motor system. This concept is of critical importance when you understand that the majority of motor system pathologies exist because the demands of activity exceed the individual’s capacity. If the demands upon the motor system are at a high level, then capacity must be even higher. Even if demands are relatively low, capacity still must exceed the level of the demand. If there is a capacity “shortage”, the result is a higher injury risk. In musculoskeletal care, one of the greatest challenges is identifying functional capacity “shortages” and how to address them during the course of conservative treatment to provide both immediate and sustainable results.

Professor Vladimir Janda and Dr. Karel Lewit pioneered the process of identifying functional pathology within the motor system. The model is in contrast to the traditional North American orthopedic model, which focuses on structural pathology (ex: disc herniations, rotator cuff injury, labral tears, etc.) as the reason for pain and impairment. But simply focusing on structural pathology can take your eyes away from identifying key reasons as to why they developed in the first place.

Outside of structural pathologies, the functional approach to managing motor system pathologies includes identifying joint dysfunction, muscular imbalances, trigger points, and faulty movement patterns. Faulty movement patterns are protective movements that form in response to pain or the anticipation of pain. These are often the hidden causes of injury, the reasons why many structural pathologies occur. Czech physician Vladimir Janda likened musculoskeletal pain and dysfunction as a chain reaction, thus stressing the importance of looking beyond the site of pain for the source of pain. Janda observed that due to the interactions of the skeletal system, muscular system, and central nervous system (CNS), dysfunction at any one joint or muscle is reflected in the quality and function of joints/muscles throughout the entire body. This opens the door to the possibility that the source of pain may be distant from the site of pain.

Janda also recognized that muscle and connective tissue are common to several joint segments; therefore, movement and pain are never isolated to a single joint. He often spoke of “muscular slings” or groups of functionally interrelated muscles. Muscles must disperse load among joints and provide stabilization for movement, making no movement truly isolated. This ultimately is the reason why many providers within physical medicine are catching onto the saying, “Stop chasing pain.” Chasing pain and other symptoms (ex: tightness, stiffness, restricted movement) may provide short-term relief, but are you providing long-term results?

A common intervention in the rehabilitation of motor system pathology is therapeutic exercise and resistance training. These exercises are used to help restore any number of neuromuscular qualities, such as endurance, strength, and motor control. But often, even in a rehab setting, exercises fail to progress a patient in the recovery process. Sometimes, the application of exercise can make a patient's condition worse. Similarly, many people with the intention of being healthy and wanting to help their body “feel better” will use resistance training in their exercise regimen. Working out, exercising, strength training should improve our state of muscle balance, right? Sure they get the cardiovascular, endocrine, and psychological benefits of exercise, but they start to wonder why all their exercising is only making certain areas of their body feel worse. This is why it’s important to learn that unless exercising occurs in a thoughtful manner, based on a functional evaluation of movement and capacity, the benefits of reducing injury risk, improving posture, enhancing motor control, and restoring muscular balance will be difficult to achieve.

For example, what Janda discovered is the tendency for certain muscles within the body to become tight and overactive, while others have the tendency to become weak and underactive. So if someone is performing general exercises, the brain will select the muscles that are already tight to perform the majority of the work. This is a phenomenon knows as “compensation” or “substitution”. Muscles that are already chronically overused will continue to be overused, leading to greater risk of an overload injury. The muscles that are “weak” have developed a sensory-motor amnesia that will not correct itself unless the exercise is carefully selected and tailored to activate these dormant muscles. Such exercises emphasis the quality of the movement pattern over any prescribed number of sets or reps. The eye of the provider can’t be focused on isolated impairments, but on finding the motor control error. Finding the hidden causes of injury or motor system dysfunction.

Remember, what enhances performance also reduces injury. Finding the solutions to enhancing performance will often address hidden motor system dysfunctions. If you are training for athletic performance, you must build functionally specific or sport-specific capacity. If you are recovering from injury, you must build function rather than solely focusing on palliative measures and treating the site of symptoms. In either scenario, you are building a better athlete and fast tracking the rehabilitation process by taking a functional approach to motor system dysfunction.

More related reading:

https://gallagherperformance.com/powerful-innovative-approach-improving-body-functions/

https://gallagherperformance.com/the-importance-of-functional-evaluation/

What You Need to Know About Preventing Knee Injuries

There is no question that knee injuries are a common occurrence among athletes. The incident of devasting knee injury, such as ACL tears, has been on the rise for years. Once considered an adult injury, ACL tears are occurring more often in children as reported by orthopedic specialists, estimating that thousands of children and teens suffer an ACL injury each year. According to statistics presented at the American Academy of Pediatrics 2011 annual meeting, over the past decade youth ACL injuries have increased 400% and girls are at eight times the risk of an ACL tear as compared to boys. Clearly, there is a problem with knee injuries among youth athletes. But where is the solution?

Mechanism of Injury and Risk Factors
To identify a solution, we must first identify the problem. In this case, the problem is the mechanism(s) of injury most commonly associated with ACL injury. Keep in mind that about 2/3 of all ACL injuries are non-contacted related. Meaning, the athlete didn’t have someone tackle them or have a player roll-up on their leg, resulting in injury. Non-contact injury opens the door to the possibility that a large percentage of ACL injuries can be reduced or prevented. Here are the most common mechanisms of injury associated with ACL injury:

  • Jumping/landing improperly
  • Planting followed by cutting or pivoting
  • Straight-knee landing
  • Stopping or landing with the knee hyperextended (too straight)
  • Sudden deceleration of movement
As far as risk factors are concerned, there have been several identified as having an association with ACL injuries, such as:
  • Weak hamstring and gluteal (hip) muscles
  • Poor neuromuscular control and balance
  • Poor dynamic biomechanics (Jumping, landing, cutting, etc.)
  • Fatigue
  • Female Gender
It is important that all risk factors be evaluated for how they play into an athlete’s risk of knee injury. Currently, there are movement screens available to help in identifying what potential risk factors may predispose an athlete to increased risk of ACL injury. Although these can prove to be valuable, one cannot underestimate the importance of simply watching an athlete move outside of a controlled environment. This means keeping an observant eye on them during training or practice and stressing them to see how their movement changes. You may be surprised by how much you learn about the physical abilities of that athlete from just simple observation.

Understanding the Female Athlete
Now that we have identified some mechanisms of injury and risk factors, we will turn our attention temporarily to the female athlete since they have their own special considerations in preventing ACL injuries. While researchers are continuing to study and gain understanding of the possible causes that may place young females at an increase risk of injury, a number of factors specific to female anatomy and development have been the focus of attention.

Female Hip and Knee Anatomy
Despite many young female athletes experiencing pain in their knees, the root of some of the problem may actually originate in the pelvis/hip structure. There is a growing trend among sports medicine specialists who focus on the pelvis/hip to reduce the incidence of knee pain and injury.

According to the Women’s Health and Fitness Guide (2006), the female pelvis has a number of differences as compared to the male pelvis for the purpose of accommodating childbirth. Among those differences, the female pelvis has a greater forward tilt and more forward facing hip joints.  These features of the female pelvis/hip result in the femur (thigh bone) being positioned with more of an inward angle and internal rotation at the knee as compared to the average male. It is this increased angle of the femur when compared to the vertical position of the tibia (shin bone). This anatomical difference is known as the "Q-angle" and is illustrated below.



What does all this mean? SImply put, it means the female knee is predisposed to having unfavorable forces placed on it and that the core, hip, and thigh musculature must be strong enough to compensate for the increased angle of the femur to the tibia, or else the female athlete may be at a higher risk for experiencing knee pain or injury.

What can be done?
Unfortunately, regardless of gender, there is no such thing as complete injury prevention. However, there are reasonable and appropriate steps that have been implement in programs that are successful in reducing the occurrence of knee pain and ACL injuries:
  1. Improve hamstring strength. The hamstring muscles have a critical role in maintaining healthy knees. Proper hamstring training and strengthening must take into consideration how the hamstrings function during the primary sporting movement(s). For example, land-based sports with an emphasis on jumping and sprinting ability will place a high demand on the hip extension action of the hamstring. The hamstrings must be trained accordingly to be able to meet and accommodate the forces generated during sport.
  2. Improve hip and core strength. The musculature of the core and hips have a tremendous amount of control on the pelvis and femur, and thus the knee. Poor hip control puts the knee in compromising positions, increasing the risk of injury. When the core and hips are weak, they needs to be a focus of treatment/exercises. This will serve to improve the stability of the knee.
  3. Improve Proprioception (Balance) and Neuromuscular Control. Sufficient proprioception and neuromuscular control is the difference between being able to ride a bike and falling on your butt every time you get on a bike. Understand that altered proprioception and neuromuscular control contribute to abnormal motion during dynamic sporting activities, such as cutting and jumping/landing. One study revealed, “Improved joint mechanics during landing were achieved regardless of the individual’s muscle strength, suggesting that strength may not always be a prerequisite for movement re-education.”  This should demonstrate the importance that mental focus and repetitive use of proper movement has on correcting mechanics.
  4. Decrease fatigue. There are 2 types of fatigue, peripheral (muscles) and central (brain).  Peripheral refers to exercise induced processes leading to decreased force production (typical muscle fatigue).  Central fatigue relates to a gradual exercise-induced reduction in voluntary muscle activation. Essentially meaning the brain gets fatigued. It is plausible to say injury comes from both, however from an injury prevention stand point; peripheral fatigue is difficult to manage because your muscles will get fatigued.  But targeted training of central fatigue might be the way to go in preventing injury. How does one train central control. As one study put it, “Exposure to more complex or cognitively demanding movement tasks may facilitate improved perception and decision making within the random sports environment.” This is were mental focus and developing an athlete's awareness of their body during drills becomes important. Mental imagery may prove beneficial in developing central control by utilizing “mental reps” to help engrain proper movement and ideal mechanics.
References:
  1. Powers  CM, Souza RB. Differences in Hip Kinematics, Muscle Strength, and Muscle Activation Between Subjects With and Without Patellofemoral Pain. J Ortho Sports Physical Thearpy. 2009;39(1):12-19.
  2. Powers CM. The Influence of Abnormal Hip Mechanics on Knee Injury: A Biomechanical Perspective. J Orthop Sports Phys Ther. 2010;40(2):42-51. http://www.jospt.org/issues/articleID.2396,type.2/article_detail.asp.
  3. Heiderscheit B. Lower Extremity Injuries: Is It Just About Hip Strength? J Ortho Sports Phys Ther. 2010;40(2):39-41. http://www.jospt.org/issues/articleID.2404,type.2/article_detail.asp.
  4. Mizner R, Kawaguchi J, Chmielewski T. Muscle Strength in the Lower Extremity Does Not Predict Postinstruction Improvements in the Landing Patterns of Female Athletes. J Orthop Sports Phys Ther. 2008;38(6):353-361. http://www.jospt.org/issues/articleID.1408,type.2/article_detail.asp.
  5. McLean SG, et al. Impact of Fatigue on Gender-Based High-Risk Landing Strategies. Medicine & Science in Sports & Exercise. October 2006.
  6. McLean SG. Fatigue-Induced ACL Injury Risk Stems from a Degradation in Central Control. Medicine & Science in Sports & Exercise. January 2009.
  7. Hilgefort M, Winchester B. Preventing ACL Injuries in Female Athletes.