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227 Cards in this Set
- Front
- Back
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Most likely plane in which restriction exists
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Tranverse
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Restriction in rotation is in which axis
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Vertical
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Patient facilitated motion is
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Active
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Abduction of wrist takes place in the __________ plane
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Coronal
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Tissue texture change in a gall bladder patient reflects
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Viscerosomatic reflex
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Evaluation of the TMJ is done at
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External auditory meatus
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Side bending occurs in a/an
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AP axis and coronal plane
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If a transverse process is posterior on the right, it is…
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Rotated right
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The sternoclavicular joint lies 1cm lateral of the
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Jugular notch
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Normal bending of the knee and hip in a marching step is
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Flexion of the hip and knee
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Superior, wide, broad area of the sacrum
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Base
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The hip is _______ to the knee
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Superior
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Hardening of the arteries causes difficulty in circulation
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Structure governs function
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Large bony protuberances develop from weight lifting
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Function modifies structure
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Headache is treated in all areas of the spine
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Body is a unit
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Developing pneumonia 2 days after falling through the ice
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Disease occurs when body is overwhelmed
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Fracture heals without treatment
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Inherent ability to repair itself
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Back pain at L3 from bending forward, then turning right is
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Flexed, rotated right, side bent right
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Functional limit within anatomical range of motion that abnormally diminishes physiologic range
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Restrictive barrier
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Bones and ligaments are
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Anatomic barriers
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Temperature change is best detected with
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Dorsum of the hand
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T2-5 N SL RR follows
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Fryette’s I
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L5 F RR SR follows
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Fryette’s II
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Patient on side
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Lateral recumbent
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Osteopathic medicine is
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A philosophy
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The ________ barrier and ________ range of motion of a hypertonic cervical spine muscle would best be improved by warm-up exercises
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Physiologic, active
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Vertebrae prominens
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C7
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Motion without patient assistance
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Passive
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Rotation occurs toward the convexity of the curve
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Fryette’s I
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American School of Osteopathy founded in
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1892
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Still’s kids died of
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Meningitis
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Goal of manipulation
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Restore and/or maintain homeostasis
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Occurs in extreme flexion or extension
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Fryette’s Type II
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Found at apex of curve group
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Fryette’s Type II
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Involves more than one vertebrae
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Fryette’s Type I
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Movement in one plane limits another
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Fryette’s Type III
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Usually has traumatic origin
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Fryette’s Type II
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Scoliosis named by
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Degree of curvature and side of convexity
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Somatic dysfunction named for
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Freedom of motion
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A difference between acute and chronic dysfunction
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Acute exhibits more tenderness
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Has a double stance phase
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Walking
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Has a double swing phase
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Running
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When corrected, they tend to return within 24 hours
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Chronic viscerosomatic dysfunctions
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The mechanism of a torn ligament
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Movement beyond anatomical barrier
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Edema is characteristic of
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Acute somatic dysfunction
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A 35 degree right thoracic scoliosis is
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Moderate
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Go up stairs with crutches
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Good leg first
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Come down stairs with crutches
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Crutches first
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Scoliosis with no identifiable cause
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Idiopathic
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Hold body in position for 90 seconds and return to neutral slowly
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Counter-strain procedure
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6’10”, step length 18”, stride 36”, and cadence 86 is
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Normal
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Tissue is boggy and warm
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Acute dysfunction
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In active range of motion, patient can move only a few degrees to the left when compared to the right
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Restrictive barrier
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Post-op manipulation should be
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Counter-strain and myofascial
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Final step in OMM treatment
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Reevaluate!!!!!
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Osteopathic treatment normalizes
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Homeostasis
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Coolness, pallor, and atrophic tissue indicate
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Chronic somatic dysfunction
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Which comes first, compression or extension?
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Compression
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Vasoconstriction of blood vessels
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Sympathetic
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Dilation of pupil
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Sympathetic
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Inhibition of heart
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Parasympathetic
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Relaxation of gall bladder and ducts
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Sympathetic
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Contraction of bronchial muscles
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Parasympathetic
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Indirect methods utilize
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Inherent forces
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Ligamentous articular strain of anterior cervical fascia is directed
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Inferior
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Direct form of muscle energy uses
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Isometric contraction
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Counter-strain is a/an
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Indirect treatment
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Barrier is engaged and forces are applied against the restrictive barrier
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Direct treatment
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Subjective component of somatic dysfunction
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Tenderness
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Somatic dysfunction can
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Compromise neurovascular components
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Asthma causing tissue change is an example of
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Viscerosomatic dysfunction
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Rhythmic lateral stretching with the origin and insertion held stationary
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Kneading
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Sustained deep pressure over hypertonic myofascial structures
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Inhibition
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Gentle stroking to encourage lymph flow
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Effleurage
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Pinching or tweaking one layer and lifting it away from deeper areas
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Petrissage
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Percussion of tissue to break adhesion or encourage bronchial secretions
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Tapotement
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Osteopathic treatment is an appropriate, effective, and sufficient treatment for
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Somatic dysfunction
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Acute somatic dysfunction exhibits ________ edema than chronic somatic dysfunction
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More
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Acute somatic dysfunction exhibits ________ warmth and erythema than chronic somatic dysfunction
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More
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Exhibits ropy, fibrotic, changes in tissue texture
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Chronic somatic dysfunction
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The diagnostic modality most useful for diagnosing somatic dysfunction
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Palpitation
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Dry skin, decreased temperature, and blanched skin are indicative of
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Chronic somatic dysfunction
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Edema is characteristic of
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Acute somatic dysfunction
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The fascial layer which blends with the skin
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Superficial fascia
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The fascia around the trapezius muscle
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Deep
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Counter-strain was discovered by
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Lawrence Jones
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Muscle energy was discovered by
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Fred Mitchell, Sr.
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Facilitated positional release was developed by
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Stanley Schiowitz, DO
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An increased kyphosis as well as a lateral curve concave on the right represents which type of dysfunction
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Fryette’s Type I dysfunction
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Boggy and warm tissue is a characteristic of
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Acute somatic dysfunction
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Findings of coolness, pallor and atrophic tissue in a patient with leg pain and weakness is characteristic of
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Chronic somatic dysfunction secondary to degenerative discs
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Indirect treatment utilizes _________ forces
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Inherent
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Counterstrain is a _____________ treatment
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Indirect
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HVLA, muscle energy, springing, and soft tissue techniques are
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Direct treatments
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Supraspinatus tenderpoint is treated with counterstrain. The position of the patient is
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Shoulder abducted and externally rotated
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In counterstrain, anterior tenderpoints are treated in
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Flexion
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Midline between physiological barriers
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Balance point
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Limits motion by bony structure
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Anatomic barrier
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Functional limit within anatomical range of motion is decreased
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Restrictive barrier
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Limits active motion
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Physiologic barrier
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Fascia
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Compartmentalizes
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If tension increases on a tendon and muscle, the ________ will cause inhibition of muscle contraction, allowing the tendon to lengthen
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Golgi organ
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This action is called the
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Golgi tendon reflex
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Muscle length shortens during contraction
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Isotonic
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Muscle length remains the same during contraction
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Isometric
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Muscle length increases during contraction
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Isolytic
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A _______ force is most commonly used for muscle energy treatment
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Isometric
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A very quick force over a short distance is used with
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HVLA
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HVLA is ________ for a patient with an acute rheumatoid arthritis condition
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Contraindicated
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Muscle energy osteopathic manipulative treatment is
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Direct and active
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HVLA is
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Direct and passive
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Counterstrain osteopathic manipulative treatment is
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Indirect and passive
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Soft tissue techniques are
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Direct and passive
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Flexion of the arm occurs in the
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Saggital plane
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The scapula moving away the spine is
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Abduction
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Spine of the scapula corresponds to
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T3
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The inferior angle of the scapula corresponds to
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T7
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Ability of a strained body or tissue to recover its original shape after deformation
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Elasticity
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Ability to retain a shape attained by deformation
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Plasticity
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Form follows function
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Wolff’s law
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Fascia meets its demand 1:1
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Hooke’s law
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Maintenance of static or constant conditions in the internal environment
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Homeostasis
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Chapman’s reflex points may be helpful in identifying
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Gallstones
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Motion that occurs the greatest in the upper thoracic spine
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Rotation
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Motion that occurs the least in the upper thoracic spine
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Extension
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Place metacarpal phalangeal joint on ___________ of articular pillars for rotation
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Posterior aspect
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Place metacarpal phalangeal joint on ___________ of articular pillars for sidebending
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Lateral aspect
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Inhibition, muscle energy, soft tissue, springing, thrust, myofascial release, and articulatory exaggeration are
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Direct treatments
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In indirect treatment, the restrictive barrier is
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Disengaged
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The qualitative description of the cessation of motion is
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End feel
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The force that, once the patient has been properly positioned, results in the therapeutic effect of the technique
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Final activating force
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We describe the final activating force with direct techniques in terms of
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Amplitude & velocity
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Distance over which the force is applied
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Amplitude
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Speed with which force is applied
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Velocity
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What is the final activating force for indirect techniques?
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Inherent motion
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What determines the level of aggressiveness of the technique employed?
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Patient tolerance
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Limb is taken through its full range of motion; attention directed at dysfunctional barrier
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Articulation
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Restrictive barrier is engaged repeatedly to produce an increased freedom of motion
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Springing
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Incorporates lateral or linear stretching and/or deep pressure, using intermittent force
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Soft tissue
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Soft tissue restrictive barrier is engaged and held with a constant force until release occurs
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Myofascial release
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Localizes forces to the area of dysfunction
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HVLA
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The patient voluntarily moves their body from a precisely controlled position against a controlled resistance applied by the physician (isometric force).
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Muscle energy
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Contraction of a muscle against resistance while maintaining constant muscle length
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Isometric
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Contraction of a muscle against resistance while allowing the origin & insertion to approximate (patient wins)
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Isotonic
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Contraction of a muscle against resistance while forcing the muscle to lengthen (doctor wins)
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Isolytic
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The muscle spindle reports increased tension; this results in increased
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Gamma tone and muscle spasm
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The short window where muscles will not reflexively contract; the muscles can be stretched during this time
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Absolute refractory period
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When a critical amount of tension occurs, increased ___________ activity brings about reflex relaxation of the muscle as a whole.
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Golgi tendon organ
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What is Soma?
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Body
|
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Asymmetry is assessed primarily by
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Observation
|
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Long standing sympathetic overstimulation which leads to disease
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Chronic hypersympathetonia
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Palpatory stimulation which results in redness which remains longer than the rest of the area tested
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Acute red reflex
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Palpatory stimulation which results in initial redness followed by blanching of the tissues before the rest of the area blanches
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Chronic red reflex
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The ________ indicates either acute somatic dysfunction in that segmental area or somatic dysfunction secondary to visceral dysfunction innervating that segment
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Acute red reflex
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Functionally links true elbow & wrist joints
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Interosseous membrane
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Allows sharing of compressive forces & movements
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Interosseous membrane
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Distal radius moves posterior & lateral, radial head glides anterior, and Interosseous membrane becomes taut
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Supination
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Distal radius crosses over ulna, radial head glides posterior, and interosseous membrane becomes loose
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Pronation
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Anatomical configuration of ulnohumeral joint that causes functional aBduction of forearm and aDduction of wrist
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Carrying Angle
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Overuse syndromes associated with any activity that requires repetitive pronation/supination and associated wrist flexion/extension
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Epicondylitis
|
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Lateral epicondylitis
|
“Tennis elbow”
|
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Medial epicondylitis
|
“Golfer’s elbow”
|
|
The most common articular somatic dysfunction found in the elbow
|
Radial head dysfunction
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May result from a fall backward on an outstretched arm
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An anterior radial head
|
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May result from a fall forward on an outstretched arm
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A posterior radial head
|
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The distal articulation of the radius with the first row of carpal bones
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True wrist joint
|
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Assessment of radial and ulnar artery patency
|
Allen’s test
|
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The most common presenting problem with the shoulder
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Pain
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The only joint in the body where a recurrent dislocation is common
|
Shoulder
|
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Dermatome where shoulder pain will be felt
|
C5 dermatome
|
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The most common cause of unilateral scapular pain
|
Cervical disc lesion
|
|
Rotator cuff pain is often referred to
|
Deltoid region
|
|
Scarring and thickening of the musculotendinous unit and surrounding tissue decreases the distance between the rotator cuff and the overlying coracoacromial arch
|
Impingement syndrome
|
|
Edema and hemorrhage
|
1st stage of impingement syndrome
|
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Cuff fibrosis, thickening, and partial cuff tearing.
|
2nd stage of impingement syndrome
|
|
Full thickness tears, bony changes, and tendon rupture.
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3rd stage of impingement syndrome
|
|
Tests for subtle impingement
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Hawkins impingement sign
|
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Pain reproduced by the painful arc maneuver
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Neer impingement test
|
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Flex the arm forward to 90 degrees and then internally rotating the shoulder (thumbs down), bringing the greater tubercle into greater contact with the undersurface of the acromion
|
Hawkins impingement sign
|
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Assesses stability of the long head of biceps tendon in bicipital groove
|
Yergason’s test
|
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Detects chronic shoulder dislocation
|
Apprehension test
|
|
Symptoms are often aching in nature and radiate into the distal arm, along the ulnar border of the forearm
|
Thoracic outlet syndrome
|
|
Compression of brachial plexus & subclavian artery between anterior & middle scalene
|
Anterior scalene syndrome
|
|
Tests for anterior scalene syndrome
|
Adson’s test
|
|
Compression of neurovascular bundle between pectoralis minor muscle and thoracic cage
|
Hyperabduction syndrome
|
|
Assessment for hyperabduction syndrome
|
Wright’s Test
|
|
Compression of neurovascular bundle between the clavicle and the first rib
|
Costoclavicular Syndrome
|
|
Assessment for costoclavicular syndrome
|
Halstead or Military Test
|
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The use of the entire self in achieving or maintaining the location and configuration of the various segments
|
Posture
|
|
Postural muscles at resting tone with no additional energy beyond basal level needed for upright posture
|
Optimal posture
|
|
Center of gravity is approximately 5 cm anterior to
|
2nd sacral vertebra
|
|
Areas where curves reverse
|
Transitional zones
|
|
Appreciable deviation of a group of vertebrae from the normal straight vertical alignment of the spine
|
Scoliosis
|
|
Curve reduced with side bending, rotation or forward bending
|
Functional Scoliotic Curve
|
|
Curve fixed and not reduced with side bending, rotation or forward bending
|
Structural Scoliotic Curve
|
|
Mild scoliotic curve
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5–15 degrees
|
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Moderate scoliotic curve
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20-45 degrees
|
|
Severe scoliotic curve
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Greater than 50 degrees
|
|
From heel strike to toe off; 60% of Gait Cycle; foot in contact with ground at all times
|
Stance phase
|
|
From toe off to heel strike; 40% of Gait Cycle; foot does not contact ground at any time
|
Swing phase
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Heel strike of one foot briefly overlaps the toe off of the opposite foot and a brief period of both feet in contact with ground
|
Walking
|
|
No double stance phase and there is a period when both feet are off of the ground
|
Running
|
|
Width of stride is an average of
|
2 - 4”
|
|
Length of step from heel strike of one foot to heel strike of opposite foot is an average of
|
15”
|
|
Length of gait cycle (stride) from heel strike of one foot to heel strike of same foot is an average
|
30”
|
|
Center of gravity normally lies 5 cm (2 inches) anterior to
|
2nd sacral vertebra
|
|
Ilium rotates on a _______ axis
|
Transverse
|
|
Cervical Vertebral motion is named for the motion of the more ________ vertebrae on the ________ vertebrae
|
Superior, inferior
|
|
OA (occipitoatlantal joint) “sideslips” to one side and rotates to
|
Opposite side
|
|
AA (atlantoaxial joint) is primarily
|
Rotational
|
|
C2-C7 rotate and sidebend to
|
Same side (“typical vertebrae”).
|
|
Cervical spine follows
|
Fryette’s III principle (Cervical spine does not follow Fryette’s I or II principles)
|
|
The major motion of Occiput on Atlas (C0 on C1) is
|
Flexion/extension
|
|
The motion of occiput on atlas follows ATYPICAL mechanics, which is
|
Rotation/ sidebending opposite directions
|
|
The OA Joint is responsible for _____ of forward-bending and backward-bending of the cervical spine
|
50%
|
|
The major motion of atlas on axis (C1 on C2) is
|
Rotation
|
|
Area of tissue 4 times more tender than surrounding area
|
Tender point
|
|
What is Neer's Test?
|
Shoulder Tests - Neer's impingement sign is elicited when the patient's rotator cuff tendons are pinched under the coracoacromial arch. The test is performed by placing the arm in forced flexion with the arm fully pronated. The scapula should be stabilized during the maneuver to prevent scapulothoracic motion. Pain with this maneuver is a sign of subacromial impingement.
|
|
what is Hawkins' Test?
|
shoulder test - The Hawkins' test is another commonly performed assessment of impingement. It is performed by elevating the patient's arm forward to 90 degrees while forcibly internally rotating the shoulder (Figure 6). Pain with this maneuver suggests subacromial impingement or rotator cuff tendonitis. One study found Hawkins' test more sensitive for impingement than Neer's test.
|
|
what is Drop-Arm Test?
|
shoulder test - A possible rotator cuff tear can be evaluated with the drop-arm test. This test is performed by passively abducting the patient's shoulder, then observing as the patient slowly lowers the arm to the waist. Often, the arm will drop to the side if the patient has a rotator cuff tear or supraspinatus dysfunction. The patient may be able to lower the arm slowly to 90 degrees (because this is a function mostly of the deltoid muscle) but will be unable to continue the maneuver as far as the waist.
|
|
What is Cross-Arm Test?
|
Patients with acromioclavicular joint dysfunction often have shoulder pain that is mistaken for impingement syndrome. The cross-arm test isolates the acromioclavicular joint. The patient raises the affected arm to 90 degrees. Active adduction of the arm forces the acromion into the distal end of the clavicle (Figure 7). Pain in the area of the acromioclavicular joint suggests a disorder in this region.
|
|
what is Apprehension Test?
|
The anterior apprehension test is performed with the patient supine or seated and the shoulder in a neutral position at 90 degrees of abduction. The examiner applies slight anterior pressure to the humerus (too much force can dislocate the humerus) and externally rotates the arm (Figure 8). Pain or apprehension about the feeling of impending subluxation or dislocation indicates anterior glenohumeral instability.
|
|
what is Relocation Test?
|
The relocation test is performed immediately after a positive result on the anterior apprehension test. With the patient supine, the examiner applies posterior force on the proximal humerus while externally rotating the patient's arm. A decrease in pain or apprehension suggests anterior glenohumeral instability.
|
|
what is Yergason Test?
|
Patients with rotator cuff tendonitis frequently have concomitant inflammation of the biceps tendon. The Yergason test is used to evaluate the biceps tendon. In this test, the patient's elbow is flexed to 90 degrees with the thumb up. The examiner grasps the wrist, resisting attempts by the patient to actively supinate the arm and flex the elbow (Figure 9). Pain with this maneuver indicates biceps tendonitis.
|
|
what is Posterior Apprehension and Instability?
|
Posterior instability of the shoulder can be assessed by using a simple test. With the patient supine or sitting, the examiner pushes posteriorly on the humeral head with the patient's arm in 90 degrees of abduction and the elbow in 90 degrees of flexion.
|
|
what is a 'Clunk' Sign?
|
Glenoid labral tears are assessed with the patient supine. The patient's arm is rotated and loaded (force applied) from extension through to forward flexion. A "clunk" sound or clicking sensation can indicate a labral tear even without instability.12
|
|
what is Spurling's Test?
|
In a patient with neck pain or pain that radiates below the elbow, a useful maneuver to further evaluate the cervical spine is Spurling's test. The patient's cervical spine is placed in extension and the head rotated toward the affected shoulder. An axial load is then placed on the spine (Figure 11). Reproduction of the patient's shoulder or arm pain indicates possible cervical nerve root compression and warrants further evaluation of the bony and soft tissue structures of the cervical spine.
|