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74 Cards in this Set
- Front
- Back
- 3rd side (hint)
Collectively, optimal length-tension relationships, force-couple relationships, & arthrokinematics produce what? |
Optimal sensorimotor integration. Optimal NM efficiency. Optimal tissue recovery. |
SNT |
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The amount of force that the HMS can produce depends on what 3 things? |
Motor unit recruitment. Muscle size. Lever system of the joint. |
LMM |
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What 4 things are a lever system composed of? |
Resistance (load to be moved). Force (muscles). Fulcrum (pivot point). Lever arms (bones). |
RFFL |
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Three classes of levers are present in the body. What are they? |
A first class lever. A second class lever. A third class lever. |
FRE |
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A 1st class lever |
Has the fulcrum between the force & the load/resistance. |
fFl. Or. eFr |
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A 2nd class lever |
Has the load/resistance between the force & the fulcrum. |
fLf. Or. fRe |
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A third class lever |
The most common in the body, have the pull between the resistance/load & the fulcrum. |
lPf. Or. fEr |
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In the HMS, the bones act as |
Lever arms that move a load from the force applied by the muscles. |
To get a job. |
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Rotary motion |
Movement of the bones (levers) around the joints (axis). |
Circle.BAJ |
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Torque & its common unit |
A force that produces rotation. Newton-meter Nm. |
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Why is torque applied in resistance training? |
So we can move our joints. |
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What is the easiest way to alter the amount of torque generated? |
To move the resistance. |
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What are the 3 subdivisions of optimal neuromuscular control? |
N length-tension relationships. N force-couple relationships. N joint arthrokinematics. |
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The closer the weight is to a point of rotation (the joint), |
The less torque it creates. |
Opposite. |
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The farther away the weight is from the point of rotation (the joint), |
The more torque it creates. |
Opposite. |
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What is the prime mover for shoulder abduction? |
The deltoid muscle. |
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What does the central nervous system coordinate at every joint in the HMS, in all 3 planes of motion? |
Stabilization. Acceleration. Deceleration. |
SAD |
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What must muscles react proprioceptively to? |
Momentum. Forces created by other functioning muscles. Gravity. Ground reaction forces. |
There are 4. MF GG |
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Muscles will participate as an agonist, antagonist, synergist, or stabilizer depending on what? |
Load. Direction of resistance. Body position. Movement being performed. |
There are 4. LDBM. |
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Agonists |
Muscles that act as prime movers. |
Number 1 hero |
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Antagonist |
Muscles that act in direct opposition to prime movers. |
Top Villain |
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Synergists |
Muscles that assist prime movers during functional movement patterns. |
Sidekick |
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Stabilizers |
Muscles that support/stabilize the body while the prime movers & the synergist perform the movement patterns. |
Cisco |
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The gluteus maximus is the prime mover for |
Hip extension. |
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The Psoas (hip flexor) is antagonistic to the |
Gluteus maximus. |
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The hamstring complex and the erector spinae are synergists to the |
Gluteus maximus during hip extension. |
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The transverse abdominis, internal oblique, multifidus, & deep erector spinae muscles stabilize the |
Lumbo-pelvic-hip complex (LPHC) during functional movements. |
Lil fun |
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Stabilizers support/stabilize during functional movements, while prime movers & synergist perform |
Functional activities. |
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Muscles that are located more centrally to the spine provide stability where? |
Intersegmental stability (vertebrae to vertebrae). |
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Muscles that are located more lateral supports what? |
The spine as a whole. |
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Local Musculature System (stabilization system) involves muscles that are predominately involved in |
Joint support or stabilization. |
Help |
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Joint support systems are not |
Confined to the spine & are evident in peripheral joints. |
Only and Proof. |
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Joint support systems consist of muscles that are |
Not movement specific, they provide stability to allow movement of a joint. |
NSJ |
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A common example of peripheral joint support system is the rotator cuff that provides dynamic stabilization for the |
Humeral head in relation to the glenoid fossa. |
HGF |
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The posterior fibers of the gluteus medias & the external rotators of the hip provide what? |
Pelvofemoral stabilization. |
PS |
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The oblique fibers of the vastus medialis provide what? |
Patellar stabilization at the knee. |
Miguel’s injury support. |
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The joint support system of the core or LPHC includes muscles that |
originate & or insert into the lumbar spine. The LS is responsible |
From LS. |
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The major local musculature system muscles : 5 |
Transverse abdominis. Internal obliques. Multifidus. Pelvic floor. Diaphragm. |
TIMPD |
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Global musculature systems (movement system) are muscles responsible predominately for |
Movement & consisting of more superficial musculature originating from the pelvis to rib cage, the lower extremities, or both. |
MaC PRL |
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The major global muscular system muscles : 9 |
Quadriceps. Erector spinae. External obliques. Rectus abdominis. Gluteus maximus. Gastrocnemius. Hamstring complex. Adductors. Latissimus dorsi. |
QEER GGHAL |
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The movement system muscles are _____, & are associated with the ____, that equalize ____. |
Predominantly larger. The movements of the trunk & limbs. Equalize external loads placed on the body. |
PMoE. |
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The movement system muscles are important in transferring & absorbing what? |
Transferring & absorbing forces from the upper & lower extremities to the pelvis.. |
LUP |
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What are the 4 distinct subsystems of the movement system muscles? |
Deep longitudinal. Posterior oblique. Anterior oblique. Lateral sub-systems. |
LAPD |
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What are the 4 major soft tissue contributors to the deep longitudinal subsystem? |
Peroneus longus. Erector spinae. Thoracolumbar fascia. Sacrotuberous ligament biceps femoris. |
PETS |
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The long head of the biceps femoris attaches to |
The sacrotuberous ligament at the ishium. |
SO |
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The sacrotuberous ligament attaches from |
The ishium to the sacrum. |
I to S |
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The erector spinae attaches from the |
Sacrum & ilium up the ribs, to the cervical spine. |
SI RC |
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The activation of the biceps femoris increases tension in the ____, which in turn transmits ____, stabilizing the ____, then up the ____. |
Sacrotuberous ligament, Force across the sacrum, Sacroiliac joint, Trunk through the erector spinae. |
SFST |
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Before heel strike, the biceps femoris |
Activates to eccentrically decelerate hip flexion & extension. |
Act long. Both Shakira |
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Just after heel strike, the biceps femoris is |
Further loaded through the lower leg via posterior movement of the fibula. |
Fresh Out of ammo lil PF. |
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Tension from the lower leg, up through the biceps femoris, into the sacrotuberous ligament, & of the erector spinae creates |
A force that assists in stabilizing the sacroiliac joint (SIJ). |
Make me help. SS |
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What is a force-couple not often mentioned in the DLS? |
V |
SPITAM |
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What is a force-couple not often mentioned in the DLS? |
Superficial erector spine. Intrinsic core stabilizers. Psoas. |
SIP |
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What do the intrinsic core stabilizers consist of? |
Transverse abdominis. Multifidus. |
TaM |
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The erector spinae & Psoas create what? |
Lumbar extension & an anterior shear force at L4 - S1. |
LEAF |
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During functional movements the local muscular system provides |
Intersegmental stabilization & a posterior sheer force. |
Into. PS |
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The posterior oblique subsystem works synergistically with |
The DLS. |
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What muscles are eccentrically loaded just before heel strike? |
Latissimus dorsi. Contralateral gluteus maximus. |
LC |
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At heel strike, each muscle in the POS |
Accelerates its respective limb (through its concentric action) & creates tension across the thoracolumbar fascia. |
Pick up the pace to make T.
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When an individual walks/runs, the POS transfers forces that are |
Summative from the muscle’s transverse plane orientation to propulsion in the sagittal plane. |
Sum of my flight POPs. |
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The POS is of prime importance for rotational activities such as wet? Dysfunction of any structure in the POS can lead to what? |
Swinging a golf club/baseball bat. SIJ instability & LBP. |
Sport. SL. |
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The POS is of prime importance for rotational activities such as wet? Dysfunction of any structure in the POS can lead to what? |
Swinging a golf club/baseball bat. Sacroiliac joint (SIJ) instability & LBP. |
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Dysfunction in any of the structures of the DLS lead to what ? |
Sacroiliac joint (SIJ) instability & LBP. |
SL |
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The weakening of the gluteus maximus, latissimus dorsi, or both can lead to |
Increased tension in the hamstring complex (a factor in recurrent hamstring strains). |
More tightness Here. |
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If performed in isolation, squats for the gluteus maximus & pulldowns/pull-ups for the latissimus dorsi will |
Not adequately prepare the POS to perform optimally during functional activities. |
Not ready. POF |
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How was the anterior oblique subsystem (AOS) similar to the POS? |
It functions in the transverse plane orientation, mostly in the anterior portion of the body. |
Up and down flight. AP |
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What are the 4 prime contributors to the AOS? |
Hip external rotators. Adductor complex. Internal/external obliques. |
HAIE |
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What does electromyography of the AOS muscles show? The AOS is a factor in stabilizing what? |
They aid in pelvic stability & rotation, contributing to leg swings. The sacroiliac joint (SIJ). |
Helping China R. S |
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The AOS is necessary for functional activities involving what? The obliques & adductor complex produce rotational & flexion movements, but are also instrumental in |
The trunk, Upper & lower extremities. Stabilizing the LPHC. |
TUL. All Shakira. |
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What 4 muscles is the lateral subsystems composed of? These 4 muscles all participate in what? |
Tensor fascia latae (TFL). Adductor complex. Gluteus medias. Quadriceps lumborum.
Frontal plane & pelvofemoral stability. |
TAG Q. FP |
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When is this function in the LS evidence? |
During increased subtalar joint pronation with increased tibial & femoral abduction & internal rotation during functional activities. |
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Unwanted frontal plane movement is characterized by |
Decreased strength & decreased NM control in the LS. |
Down. |
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When is this function in the LS evidence? |
During increased subtalar joint pronation with increased tibial & femoral abduction & internal rotation during functional activities. |
Up, up, away, & in. |
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When is this function in the LS evidence? |
During increased subtalar joint pronation with increased tibial & femoral abduction & internal rotation during functional activities. |
Up Sin, up, away, & in. |