Functional Movement Screen
How it Works
FMS is a ranking and grading system that documents movement patterns that are key to normal function. The FMS identifies functional limitations and asymmetries. These are issues that can reduce the effects of training and increase the risk of injury.
The FMS generates the Functional Movement Screen Score, which is used to target problems and track progress. This scoring system is directly linked to the most beneficial corrective exercises to restore mechanically sound movement patterns.
Exercise professionals monitor the FMS score to track progress and to identify those exercises that will be most effective to restore proper movement and build strength in each individual.
What it Does
The FMS can be applied at any fitness level, and simplifies corrective strategies for all movement issues. It identifies specific exercises based on individual FMS scores to instantly create customized treatment plans.
With the FMS we can identify dangerous movement patterns and evaluate your risk of injury.
By utilizing the corrective exercises we can increase the ability to train and decrease the risk of injury
The FMS test is a motion screen performed on every athlete moving through the program. It is a very powerful tool that helps us to evaluate and identify potential injury areas in all of our athletes by looking at patterns of flexibility, mobility, and imbalance. Once a score is obtained we can instruct the athlete through a series of corrective exercises that help to address their specific needs, elevate their score, and ultimately bring them to a state of condition where chance of injury is greatly reduced.
Test 1: Deep Squat
The squat is a movement needed in most athletic events. It is the ready position and is required for most power and lifting movements involving the lower extremities. The deep squat is a test that challenges total body mechanics when performed properly. It is used to assess bilateral, symmetrical and functional mobility of the hips, knees and ankles. The dowel held overhead assesses bilateral, symmetrical mobility of the shoulders as well as the thoracic spine. The ability to perform the deep squat requires appropriate pelvic rhythm, closed-kinetic chain dorsiflexion of the ankles, flexion of the knees and hips and extension of the thoracic spine, as well as flexion and abduction of the shoulders.
Test 2: Hurdle Step
The hurdle step is designed to challenge the body’s proper stride mechanics during a stepping motion. The movement requires proper coordination and stability between the hips and torso during the stepping motion as well as single leg stance stability. The hurdle step assesses bilateral functional mobility and stability of the hips, knees and ankles. Performing the hurdle step test requires stanceleg stability of the ankle, knee and hip as well as maximal closed-kinetic chain extension of the hip. The hurdle step also requires step-leg open-kinetic chain dorsiflexion of the ankle and flexion of the knee and hip. In addition, the subject must also display adequate balance because the test imposes a need for dynamic stability.
Test 3: In-Line Lunge
This test attempts to place the body in a position that will focus on the stresses as simulated during rotational, decelerating and lateral-type movements. The inline lunge is a test that places the lower extremity in a scissored position, challenging the body’s trunk and extremities to resist rotation and maintain proper alignment. This test assesses torso, shoulder, hip and ankle mobility and stability, quadriceps flexibility and knee stability. The ability to perform the in-line lunge test requires stance-leg stability of the ankle, knee and hip as well as apparent closed kinetic chain hip abduction. The in-line lunge also requires step-leg mobility of the hip, ankle dorsiflexion and rectus femoris flexibility. The subject must also display adequate stability due to the rotational stress imposed.
Test 4: Shoulder Mobility
The shoulder mobility screen assesses bilateral shoulder range of motion, combining internal rotation with adduction and external rotation with abduction. It also requires normal scapular mobility and thoracic spine extension. The ability to perform the shoulder mobility test requires shoulder mobility in a combination of motions including abduction/external rotation, flexion/extension and adduction/internal rotation. It also requires scapular and thoracic spine mobility.
Test 5: Active Straight-Leg Raise
The active straight-leg raise tests the ability to disassociate the lower extremity while maintaining stability in the torso. The active straight-leg raise test assesses active hamstring and gastroc-soleus fl exibility while maintaining a stable pelvis and active extension of the opposite leg. The ability to perform the active straight-leg raise test requires functional hamstring fl exibility, which is the fl exibility that is available during training and competition. This is different from passive fl exibility, which is more commonly assessed. The subject is also required to demonstrate adequate hip mobility of the opposite leg as well as lower abdominal stability.
Test 6: Trunk Stability Push-up
The trunk stability push-up tests the ability to stabilize the spine in an anterior and posterior plane during a closed-chain upper body movement. It assesses trunk stability in the sagittal plane while a symmetrical upper-extremity motion is performed. The ability to perform the trunk stability push-up requires symmetric trunk stability in the sagittal plane during a symmetric upper extremity movement. Many functional activities require the trunk stabilizers to transfer force symmetrically from the upper extremities to the lower extremities and vice versa. Movements such as blocking in football and jumping for rebounds in basketball are common examples of this type of energy transfer. If the trunk does not have adequate stability during these activities, kinetic energy will be dispersed, leading to poor functional performance as well as increased potential for micro traumatic injury.
Test 7: Rotary Stability
This test is a complex movement requiring proper neuromuscular coordination and energy transfer from one segment of the body to another through the torso. The rotary stability test assesses multi-plane trunk stability during a combined upper and lower extremity motion. The ability to perform the rotary stability test requires asymmetric trunk stability in both sagittal and transverse planes during asymmetric upper and lower extremity movement. Many functional activities require the trunk stabilizers to transfer force asymmetrically from the lower extremities to the upper extremities and vice versa. Running and exploding out of a down stance in football and moving and carrying heavy equipment or objects are examples of this type of energy transfer. If the trunk does not have adequate stability during these activities, kinetic energy will be dispersed, leading to poor performance as well as increased potential for injury.
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