Posts Tagged ‘acl prevention’

Ski Season – Part I., Gary A. Levengood, MD

Wednesday, January 25th, 2012

Ski season is fast approaching and with it the thrill of an exhilarating run down the slopes on your skis or an equally exhilarating ride, but it’s not nearly as fun going down the slope on a ski patrol.

Which scenario you end up in is decided in large part by how you prepare for your ski vacation. The biggest cause of ski injuries is lack of conditioning for this demanding sport. If you have that vacation planned for February or March now is the time to get into condition for skiing.

Proper muscular conditioning involved all the components of fitness, i.e. flexibility, strength and endurance. The muscles most involved in skiing are the leg muscles. If you have not started previously, now is the good time to begin a stretching program. Stretch all the muscles around the hip including the hip abductors, flexors, extensors and groin muscles. Once you place your muscles in a position of stretch, hold them for a count of 30, and remember do not bounce. Then proceed to stretch the quadriceps and hamstring muscles again holding for 30 seconds.

Finally, give the calf muscle a good stretch. These stretches should be done at least once a day or more frequently if your muscles are tight. Always stretch prior to your workout and definitely before heading down the slopes.  If you are interested in knowing more about fitness or how to best utilize a flexibility program, call one of our certified athletic trainers today!

Functional Movement & Corrective Exercise, James Williams MS, ATC

Monday, January 16th, 2012

This past Sunday (1/15/12) Charlie Weingroff, DPT held a one day clinic on “Corrective Exercise for the Rehab Professional.”  This clinic focused on body movement.  From the time we are babies we begin neuromuscular development.  As babies we start on our back cooing and cawing and playing with our toes.  As we develop we learn to roll over onto our bellies.  Next we learn to push ourselves up and stand.  As we begin to walk we take wobbly steps and usually fall backwards several times.  At that point we roll over, push ourselves up and eventually, after several tries, we finally take that first big step.  To be clear, this course took us back to basic fundamental movements.

Dr. Weingroff explained how every movement, we as individuals make, is a derivative of the first year.  We learn to do things a certain way.  We train our brains that this is the way we are going to do things.  But through corrective exercise we can change our subconscious dysfunctions to a subconscious function over time.  It will make us all feel better from our toes to our head.

Dr. Weingroff began by defining corrective exercise.  Using corrective exercise we can train our brain to perform a new task.  This is also known as motor learning.  There are joints in our body that are designed to be mobile and joints designed to be stable.  Dr. Weingroff showed that if a stable joint is mobile or a mobile joint is stable, it can change the integrity of each of the other joints up the chain.  He then explained that our movement patterns might occur in one plane or another or it could occur in multiple planes.  He showed how our legs might be moving in one plane and our hands in another.  He finally showed that our upper body and lower body might be moving in multiple planes and multiple directions.  At this point we began to warm up and be interactive with our movements.  First Dr. Weingroff had us do movements in a single plane.  Maybe that was stepping or lunging or hoping or jumping.  This was seemingly easy.  Then he had us do similar movements with multiple planes.  This was a little more of a challenge.  Finally, Dr. Weingroff showed us a movement such as a skip on the left side and a run on the right side.  I’m glad he did not have us do that one because I can only imagine what that would have looked like.  But it does show that if we use corrective exercises to retrain our brain, we can do strange but productive things with our bodies without getting injured.  Sometimes we put our bodies in weird positions trying to do things at the house or playing the weekend sport and this showed that corrective exercises might help reduce the chance of injury with everyday activities.

The afternoon session focused on introducing the principles of the Functional Movement Screen (FMS).  If you don’t know about the FMS, I recommend you look into it.  We can use the screen to assess our risk of injury, whether we are changing a light bulb or running the 400 meter hurdles.  After you have your score on the screen we first look at asymmetries, correcting ourselves so the left and right are moving together and equally.  We also looked at dysfunctions in the movement pattern and how we could do exercises as simple as lying on the floor and breathing to correct these movement dysfunctions.  Dr. Weingroff focused on the shoulder mobility test and the active straight leg raise (ASLR) test during our session.

Dr. Weingroff focuses most of his therapy on the FMS and how we as humans move.  It was interesting to see that correcting dysfunctional movement patterns can make us more productive on the field, in our rehab and just in our daily lives.  Movement is the basis of us as humans.  If we are not moving properly, we will have an increased risk of injury.

If you are interested in the Functional Movement screen, call one of our professionals today at 770-237-3475.

The Anti-Gravity Treadmill at Sports Medicine South

Wednesday, August 10th, 2011

The Anti-Gravity Treadmill, more formally known as the Alter-G, does exactly what its name eludes to by creating a walking environment similar to that of the Moon. Conceived by NASA, and approved by the FDA, the Alter-G is designed to reduce the weight impact on lower extremities. By utilizing air pressure, the Alter-G has the ability to take off as much eighty percent of your own body weight, allowing patients to walk, jog, or run without pain or further injury. Both Sports Medicine Rehab facilities and professional sports associations strongly back the innovative machine.  The Alter-G is continually used to facilitate rehabilitation to patients and athletes with hip, knee, ankle, and foot injuries

The technically advanced machine, although in high demand, is hard to find. There are only a few Alter-G’s found across Georgia; one of the machines is housed in the Physical Therapy Department of Sports Medicine South in Lawrenceville, GA. Curt Bazemore, PT and SMS’s Director of Rehabilitation sums it up as, “The capabilities of the Alter-G facilitate a significant improvement in the quality of care for our patients and to the progression of their rehabilitation program.”

What is the MOST IMPORTANT part of ACL Reconstruction?

Thursday, November 18th, 2010

Eric Cressey is president and co-founder of Cressey Performance, a facility located just west of Boston, MA and has a very interesting blog post on the success rates of ACL grafts. Cressey refers to a study that states there was no significant differences in what type of graft was used in regards to the success of the procedure. But near the end of his blog, he makes a profound statement, “I remember Kevin Wilk at an October 2008 seminar saying that 85% of ACL reconstructions in the U.S. are performed by doctors that do fewer than 10 ACL reconstructions per year.  So, don’t just find a surgeon; find a surgeon that does these all the time and has built up a sample size large enough to know which ACL graft site is right for you…”

We can not agree more with Coach Cressey. The MOST IMPORTANT part of ACL Reconstruction is choosing the right Doctor!  Gary A. Levengood, MD has performed over 100 ACL Reconstructions in the past year alone including both the patellar and hamstring grafts! Call our office today at 770-237-3475 and speak with one of our specialists in order to see what procedure would be best for you.

The Athletic Knee, Part II

Friday, March 27th, 2009

PREVENTION
Unfortunately, ACL injuries have become a major part of athletics. In particular, female soccer players have a reported 4-6 times greater risk of ACL injury than the male athlete and over 30,000 ACL injuries are reported every year with an estimated healthcare cost of over 720 million dollars. In response, over the past several years, many programs have been developed, designed and promoted to reduce the risk of ACL Injury. Results from this focus on proper athletic development have returned a reduced rate of injury in as much as 75% for athletes in a specifically designed program. (Boone 2007)

A properly designed training program should consist of nine basic components: evaluation, movement preparation, plyometrics, core strengthening, weak point training, integrated strength training, multi-directional speed training, footwork, and proper recovery drills.

1. Evaluation/Testing

Just as a coach evaluates the tactical and technical skill of the player, it is vital to asses the overall functional movement skills of the athlete. Can the player move correctly? Do they react quickly? Do they have the ability to stop or change direction?
Again, there are many programs that have been marketed to do this, including Cook’s Functional Movement Screen, Sportsmetrics, Jumpmetrics, and the ACL Hop & Stop Test. No matter the program, it is important to asses 6 areas of basic athletic movement.
• Posture
• Single Leg Stance & Movement
• Jumping
• Landing
• Posterior Chain (hamstring and glute development)
• Deceleration & Directional Change

2. Performance Preparation

Prior to performing any athletic activity, the body must be prepared to move in all directions, speeds, and methods that will be required during that activity. The days of taking two laps and playing are over. If the body is not properly prepared and the neuromuscular system is not fully engaged, there will be a greater risk of injury to the athlete. In particular, both the mobility and flexibility of the athlete must be addressed. The purpose is NOT to just “warm-up”, this is PART of the workout!

– Increase core temp, mobility, flexibility, stability and strength; “activate muscles”; use muscles in stretched position; establish and maintain ability to reproduce movements
– Mobility: range of motion with stability & control – correct motion at correct joint at correct plane at correct time (Gray, 2000)
– Flexibility: range of motion (ROM) around a joint (Gambetta, 2007)
• Static Flexibility – static flexibility is a limiting factor to athletic mobility
• Dynamic Flexibility – just like balance and posture flexibility is dynamic, not just static in nature

3. Plyometrics

Plyometrics are not a new training program and have been employed as far back as the late 1950’s. Plyometrics are simply a method of training that develops explosive power and have often been referred to as “jump training”. There are several forms of plyometric training that need to be employed in any athletic training program in order to maximize the power of the athlete.
• Rapid Fire Plyo – quick, short burst of jumps and landings with minimal time spent on the ground
• Max effort Plyo – focus on exploding off the ground with as much force as possible and allowing a full, complete landing
• Lateral v. Linear – Jumping both front-back and side to side
• SL v. DL – Jumping and landing on both a single leg and a double leg
• Landing/Tech – The correct biomechanics of landing in order to properly control the body and reduce stress on ankle, knee and hip. The most common problem with female athletes is the inability to bend the knees to assist in force dispersal as well as a “knock-knee” when landing creating an increased stress in the medial knee and ACL.

4. Torso Training

The term “CORE Training” is so over used and misused that we have gone away from that term and have begun to utilize the term “torso training”. This training is the focus on any body part with the exception of the arms and legs. It is more than just abs! It includes low back, hips, glutes, mid back & scapula stabilizing muscles. A proper program will focus on the ability to prevent rotation as well as the ability to produce rotation from the torso. Without the ability to stabilize the body, you can not mobilize its segments, namely the arms and legs. In order to produce and reduce force properly, it is vital to have a strong and efficient torso.

5. Weak Point Training

Another overused and misapplied word is prehabilitation or injury prevention exercises. It is impossible to prevent all injury. At best our goal is to reduce the likelihood of injury while promoting an increase in sport performance. In order to do so, each athlete must work on particular areas of the body that were addressed in the evaluation & testing component that have been viewed as a limiting factor. These areas that affect the lower extremity and the ACL often include:

• Foot
• Ankle
• Knee
• Hip
• Low Back

6. Integrated Strength Training

Strength is the basic building block of any athletic development program. Without strength it is impossible to produce and, more importantly, reduce force. Therefore, a properly designed program will address both the knee dominant exercises (lower body pushing exercises such as squat, lunge and step-ups) as well as hip dominant exercises (both closed chain – foot on the ground exercise such as deadlifts, glute hams & open chain – foot moving exercises such as stability ball curls, band kickbacks, etc)

• Knee Dom – squat, lunge, step-up
• Hip Dom – posterior chain development (both open chain and closed chain)

7. MDST

MDST is multi-directional speed training. Soccer athletes must develop foot speed in all directions not just straight ahead; too many athlete focus on getting quicker for the 30m or 40 yard dash. Athletes need to develop translatable speed in all directions. Most importantly, athletes need to focus on proper mechanics of decelerating. The ability to stop is one of the least trained yet most often causes of injury.
• Form/Tech – proper mechanics of running to increase efficiency or form
• Resisted – training designed to resist the athlete from running at highest speed and tax the muscular system developing an increase in stride length
• Assisted – training designed to assist the athlete to run at highest speed and develop a greater stride rate.

8. Footwork & Quickness

Lateral Speed, agility and foot quickness are just as important as linear speed to the soccer athlete. The athlete must not only posses great directional speed but also the ability to react and change direction with the appropriate body control in order to avoid injury.
• Directional
• Reactional

9. Recovery & Regeneration

Finally, the athlete must reduce stress on the muscular system and avoid adhesions and flexibility-limiting problems through a planned regeneration and recovery program utilizing massage, stretching and rest periods.

TREATMENT
The treatment for ACL injuries can be either non-operative or operative. Non-operative treatment consists of supervised physical therapy, activity (sport) modification and bracing. However, many initial non-operative treatments end up requiring surgery due to continued instability and/or further injury. The operative treatment of ACL injuries has progressed significantly over the past 20 years. Due to new arthroscopic techniques, better graft selection and improved postoperative rehabilitation, an increased number of athletes have been able to return to their chosen sport more quickly and safely than ever before. If surgery is chosen it is usually performed in an outpatient setting. Recovery times to return to sport depend on many factors and can vary from 3 – 8 months with aggressive rehabilitation.

SUMMARY
ACL injuries are increasing due to increased sport participation and continued year round training. Prevention programs are available and have proven to reduce risks of injury by up to 75%. If necessary, surgery has a high rate of success if performed by an experienced Orthopedic Surgeon and followed with an aggressive rehabilitation plan supervised by an experienced physical therapist and/or certified athletic trainer.

Gary A. Levengood, M.D., is the Founder and President of Sports Medicine South, LLC. Board certified in Orthopaedic Surgery and Sports Medicine by the American Board of Orthopedic Surgeons, Dr. Levengood completed a Sports Medicine fellowship at The Hughston Clinic in Columbus, Georgia, where he specialized in Arthroscopic Surgery and Sports Medicine. He also holds membership in the American Academy of Orthopedic Surgeons. He was the former Team Physician of the Georgia Force Arena Football Team and the Atlanta Silverbacks Soccer team; serves as the Medical Director for the Georgia State Soccer Association’s Olympic Development program and served recently as the Chief of Orthopedics at Gwinnett Medical Center.

The Athletic Knee, Part I.

Wednesday, March 25th, 2009

You’re out playing a soccer game, a tennis match, or maybe even down hill skiing when all of a sudden you lose your balance and feel a “pop” in your knee. For a moment, the pain is excruciating, but then it becomes more tolerable. However, your knee starts to swell and it is painful to walk on. So, you are helped off the field, court, or get a sled ride down the mountain. Unfortunately, you have just joined the nearly 200,000 others who will tear their Anterior Cruciate Ligament (ACL) this year.

With a general increase in organized sports and year round training, games and tournaments, it is not surprising that the exposures and risks for ACL injuries has increased as well. If you are female athlete (especially those participating in soccer, basketball or gymnastics) your risk of injuring your ACL is 2 – 10 times greater than your male counterparts, and the numbers are growing! With the advent of Title IX legislation and the rise in opportunities for female athletic participation, a whole new number of athletes have become at risk of injury.

ANATOMY
The ACL is one of the four principle ligaments which help to stabilize the knee. The ACL is anterior or in front of the Posterior Cruciate Ligament (PCL) and crosses it from inside to outside. The other two major ligaments are the Medial Collateral Ligament (MCL) on the inside part of the knee, and the Lateral Collateral Ligament (LCL) on the outside part of the knee. The ACL functions to prevent the Tibia (shin bone) from being pulled off the Femur (thigh bone). The quadriceps (thigh) muscles in front help to extend the knee and the Hamstring muscles in back help to flex or bend the knee. The hamstrings are vital as they actively help to prevent the quads from pulling the tibia off the femur.

RISKS
The probability of tearing your ACL is increased if you are involved in a contact or collision sport that includes cutting, twisting and jumping. However, it is important to note that non-contact ACL injuries (where no one hits you) are responsible for 70% of these injuries, where direct contact accounts for only 30%. Again, female athletes have an increased incidence of non-contact ACL injuries than do male athletes (up to 10%).

GENDER DIFFERENCES
Some of the factors increasing the risk of injury to the female athlete include:

Anatomical Structure: women tend to have wider pelvises than men and tend to be more “knock-kneed”, putting increased stresses across the knee joint.
Muscular Activation: female athletes do not contract the hamstrings as quickly as male athletes and are unable to protect the ACL from shearing forces.
Ligament Structure: the female ACL is smaller in diameter than the corresponding male ACL.
Hormonal Differences: Some have even suggested a hormonal reason, however this remains relatively inconclusive.

Coming in The Athletic Knee, Part II, we will discuss the methods used to reduce the liklihood of non-contact ACL injuries to the knee….