Chimera NJ, Warren M. Use of clinical movement screening tests to predict injury in sport. World J Orthop 2016; 7(4): 202-217 [PMID: 27114928 DOI: 10.5312/wjo.v7.i4.202]
Corresponding Author of This Article
Nicole J Chimera, PhD, ATC, CSCS, Department Chair and Program Director, Department of Athletic Training, Daemen College, 4380 Main Street, Amherst, NY 14226, United States. nchimera@daemen.edu
Research Domain of This Article
Sport Sciences
Article-Type of This Article
Editorial
Open-Access Policy of This Article
This article is an open-access article which was selected by an in-house editor and fully peer-reviewed by external reviewers. It is distributed in accordance with the Creative Commons Attribution Non Commercial (CC BY-NC 4.0) license, which permits others to distribute, remix, adapt, build upon this work non-commercially, and license their derivative works on different terms, provided the original work is properly cited and the use is non-commercial. See: http://creativecommons.org/licenses/by-nc/4.0/
Table 3 Landing Error Scoring System scoring criteria
LESS item
Operational definition of error
Knee flexion: Initial contact
Knee is flexed less than 30° at initial contact
Hip flexion: Initial contact
Thigh is in line with the trunk at initial contact
Trunk flexion: Initial contact
Trunk is vertical or extended on the hips at initial contact
Ankle plantar flexion: Initial contact
Foot lands heel to toe or with flat foot at initial contact
Medial knee position: Initial contact
Center of patella is medial to midfoot at initial contact
Lateral trunk flexion: Initial contact
Midline of trunk flexed to left/right side body at initial contact
Stance width: Wide
Feet positioned > shoulder width apart at initial contact
Stance width: Narrow
Feet positioned < shoulder width apart at initial contact
Foot position: External rotation
Foot is internally rotated more than 30° between initial contact and maximum knee flexion
Foot position: Internal rotation
Foot is externally rotated more than 30° between initial contact and maximum knee flexion
Symmetric initial foot contact
One foot lands before other or one foot lands heel to toe and other lands toe to heel
Knee flexion displacement
Knee flexes less than 45° between initial contact and max knee flexion
Hip flexion displacement
Thigh does not flex more on trunk between initial contact and maximum knee flexion
Trunk flexion displacement
Trunk does not flex more between initial contact and maximum knee flexion
Medial knee displacement
At maximum medial knee position, the center of patella is medial to midfoot
Joint displacement
Soft: Participant demonstrates large amount of trunk, hip, and knee displacement Average: Participant has some but not large amount of trunk, hip, and knee displacement Stiff: Participant goes through very little, if any, trunk, hip, or knee displacement
Overall impression
Excellent: Participant displays soft landing with no frontal or transverse plane motion Poor: Participant displays large frontal or transverse plane motion, or participant displays stiff landing with some frontal or transverse plane motion Average: All other landings
Table 4 Landing Error Scoring System scoring criteria real-time
LESS RT item
Operational definition
View
Jump number
Stance width
Participant lands with very wide or very narrow stance (+1)
Front
1
Maximum foot-rotation position
Participants feet moderately externally or internally rotated at any point during the landing (+1)
Front
1
Initial foot-contact symmetry
One foot lands before the other or 1 foot lands heel-to-toe and other foot lands toe-to-heel (+1)
Front
1
Maximum knee-valgus angle
Participant moves into a small amount of knee valgus (+1); Participant moves into a large amount of knee valgus (+2)
Front
2
Amount of lateral trunk flexion
Participant leans to left or right so trunk is not vertical in the frontal plan (+1)
Front
2
Initial landing of feet
Participant lands heel to toe or with flat foot (+1)
Side
3
Amount of knee-flexion displacement
Participant goes through small (+2) or average (+1) amount of knee flexion displacement
Side
3
Amount of trunk-flexion displacement
Participant goes through small (+2) or average (+1) amount of trunk flexion displacement
Side
4
Total joint displacement in sagittal plane
Participant goes through large displacement of trunk and knees, score soft (0); Participant goes through average displacement of trunk and knees, score average (+1); Participant goes through minimal displacement of trunk and knees, score stiff (+2)
Side
All
Overall impression
Participant displays soft landing and no frontal plane motion at knee, score excellent (0); Participant displays stiff landing and large frontal plane motion at knee, score poor (+2); All other landings score average (+1)
Table 5 i-Landing Error Scoring System criteria
Good movement pattern
Poor movement pattern
Lands with no knee valgus at initial foot contact
Lands with moderate to large knee valgus position at initial foot contact
Lands with no knee valgus displacement from initial contact to maximum knee flexion
Lands with moderate to large knee valgus displacement from initial contact to maximum knee flexion
Lands with > 30° of knee flexion
Lands with < 30° of knee flexion
Undergoes > 30° of knee flexion
Undergoes < 30° of knee flexion from initial contact to full knee flexion
Minimal to no sound upon landing
Loud sound upon landing
Table 6 Technique flaws of the Tuck Jump Assessment
Lower extremity valgus at landing
Thighs do not reach parallel (peak of jump)
Thighs not equal side-to-side (during flight)
Foot placement not shoulder width apart
Foot placement not parallel (front to back)
Foot contact timing not equal
Excessive landing contact noise
Pause between jumps
Technique declines prior to 10 s
Does not land in same footprint (excessive in-flight motion)
Table 7 Categorization of 10 technique flaws from the Tuck Jump Assessment into modifiable risk factors
Modifiable risk factor
Description
Technique flaws
Ligament dominance
“Imbalance between the neuromuscular and ligamentous control of the dynamic knee stability”
Lower extremity valgus at landing
Foot placement not shoulder width apart
Quadriceps dominance
“Imbalance between knee extensor and flexor strength, recruitment, and coordination”
Excessive landing contact noise
Leg dominance or residual injury deficits
“Imbalance between the 2 lower extremities in strength, coordination, and control“
Thighs not equal side-to-side (during flight)
Foot placement not parallel (front to back)
Foot contact timing not equal
Trunk dominance/core dysfunction
“Imbalance between the inertial demands of the trunk and core control and coordination to resist it”
Thighs do not reach parallel (peak of jump)
Pause between jumps
Does not land in same footprint (excessive in-flight motion)
Technique perfection
Not defined
Technique declines prior to 10 s
Citation: Chimera NJ, Warren M. Use of clinical movement screening tests to predict injury in sport. World J Orthop 2016; 7(4): 202-217