Lect: MSK dysfunction (5), pediatric ortho (5), OPP psych (5), Neurology (5), CP (5) Flashcards
median nerve
C5-T1
tingling in the first three fingers
(carpal tunnel signs) - indicates nerve root impingement, rather than peripheral nerve problem
pinch points?
- thoracic outlet: first rib, clavicle, scalene dysfunction
- axilla
- cubital area (pronator teres syndrome)
- interosseous membrane
- carpal tunnel
pronator teres syndrome
other sites around the elbow - - nerve can run under ligament of struthers
- thickenend biceps aponeurosis
- thickened flexor digitorum superficialis
= impingement of median nerve
plantar fasciitis
inflamm. and tearing of the heel bone fascia
what can you do w/ OMT to tx CP?
- address mm. tone (function affects structure)
- address proprio input to affect motor output (structure affects fn.)
Goals:
- decrease pain
- affect proprio input to change posture - limit and prevent contractures
- improve functional capabilities
classifications of CP motor function?
- pyramidal = spastic (results in hemiplegia, diplegia, etc.) = hypertonia, stiff limbs
- extrapyramidal = non-spastic / dyskinetic (results in more athetoid, dystonic/ataxic mvmts) = hypotonia, floppy limbs
pyramidal CP
- spastic, hypertonic
- UMN damage in cortex
- more common
- stiff rigid limbs, w/ exagerrated reflexes, jerky mvmt
- Most often arms and legs affected, but can affect tongue, mouth and larynx, affecting speech, eating, breathing and swallowing
- Associated pathology: **Hip pathology, scoliosis, limb deformities
- contractures, hamstring hypertonicity
Spastic CP:
- spasticity affects posture, and influences cortical mapping
- joint proprio is altered
- baseline tone is very tight
biomechanics:
- Impaired down-regulation of the descending modulating pathways of the myotactic reflex d/t cortical damage –> hypertonicity and spasticity and uncoordinated mvmts
- Muscle agonist/antagonist pairs don’t work well together
- Each movement has the potential to activate this reflex due to the imparied down-regulation
Myotatic reflex: stretched mm –> efferent contraction of mm –> causes antagonist mm. to be stretched…. both mm. become hypertonic at same time!
extrapyramidal CP
= nonspastic, “floppy kids”, hypotonic (20% of pts.)
- usually present with generalized hypotonia and increased DTR’s in infancy which then progresses to dyskinesia’s in childhood
- baseline tone lower than normal, posture impaired
- may have sensorineural hearing loss, strabismus and nystagmus
- two types:
1. ataxic CP (uncoord. mvmt) - damage to cerebellum, tremor, hypotonia, lack of balance
2. dyskinetic CP (choreaform mvmts) - assoc. w/ damage to BG, has hyper and hypotonia
** see impairemtn in involuntary mvmt: dyskinesas, dystonias, athetosis
- Mental impairment and seizures are less likely
- Less likelihood of limb deformities
- Speech may be affected due to muscle impairment
postural compensation in spastic CP?
Muscles most commonly affected? Lower Extremities
- hamstring hypertonicity –> posterior innom, decreased lumbar lordosis
- extension of TLJ
- flattened thoracic kyphosis
- extended OA
- altered mechanics of hip –> excessive forces through acetabulum –> increased hip dislocation, fracture or avascular necrosis
** always evaluate new onset pain or changes in function
MET to use w/ CP?
Isometric - this is what we are taught, same length
Isotonic concentric= Same tone, shorten the muscle (let the patient win)
Isotonic eccentric= Same tone, lengthen the muscle (let the physician win)
Isolytic = Quickly overcoming patient contraction
Reciprocal inhibition = Utilizes the withdrawal and crossed-extensor reflexes therapeutically- Applying MET to one group of mm to affect the antagonist partner (i.e. treat hamstrings to affect Quads, or treat left hams to affect right quads)
** Due to muscle physiology, MET is not the
best choice for kids under 8 years
tx for spastic CP?
MET:
Isolytic: slowly and gently break up fibrosis
- Good for adhesions, fibrosis from long term contraction
- Can use directly on hypertonic muscles (gently)
Reciprocal inhibition
- To decrease tone to hypertonic muscles using muscles that may be under better voluntary control of the patient
- Hemiplegias, unilateral contractures
MFR, can alwys be used!
postural compensation in nonspastic CP?
lock weight-bearing joints –> lock adductors and quds –> anterior pelvic displacement
decreased cervical lordosis, head forward posture - extended dysfunction in OA and shortening of suboccipital muscles may lead to chronic headache and bruxism
Common orthopedic problems:
- Tibial rotations and torsions, persistent femoral anteversion, pes planus, genu valgus
Common complaints
Back pain, knee, hip pain, headache
Tx for non-spastic CP?
MET:
- Isotonic eccentric
Use to address the shortened muscles, especially antigravity muscles (adductors, quads, abductors, psoas) – slowly lengthen it like direct MFR
- Isotonic concentric
Help to strengthen and improve firing patterns of hypotonic muscles – (like when working out at the gym) - Isometric may be used to address joint mechanics and muscle firing patterns of opposing muslce groups
MFR, can alwys be used!
which tx to use w/ all types of CP?
- MFR ALWAYS!!!
- BLT - esp. tibia-fibula and interosseous membrane (lots of proprio info!)
- FPR - great for short restrictors (suboccipital muscles, paraspinals)
- C/S: used to lengthen and relax tone in long restrictor muscles (psoas, quads, hams)
DONT USE HVLA!!! hypotonic too lax, hypertonic too much guarding
parent at home tx?
Rib raising
Diaphragms
Lymphatic pumps
BLT
balanced ligamentous tension/ligamentous articular strain
disengage (compression/decompression), exaggerate (take into dysfunction), balance
articulatory technique
direct tx - moves through a restrictive barrier
FPR
facilitated positional release - put joint in neutral –> apply compression –> then take to ease
still technique
- place the dysfunctional tissues into the position of ease
- add a force vector through the dysfunctional tissue
- then position it into the barrier while maintaining the vector force
support for other medical issues w/ CP?
- pneumonia
- maximize O2 and clearance of secretions through: rib tx, thoracic motion, thoracic MFR at sternum - Gastric reflux
- G tube placed for nutrition
- reduce relux through encouraging diaphragm motion: thoracic inlet, thoracic, pelvic
- Cranial base mechanics (vagus nerve comes through here!)
- Middle cervical spine (C3-5) – important for diaphragm motion! phrenic nerve
- Middle thoracic spine (T5-9) – viscerosomatic to stomach!
research on CP shows?
MFR helps with spasticity
OMT + MFR is better than accupuncture
causes of limping child?
0-4 years: think transient toxic synovitis, septic arthritis
4-10 years: TTS, septic arthritis, LCP disease, JIA
10-18 years: slipped capital femoral epiphysis (SCFE), gonococcal arthritis, stress fracture
developmental hip dysplasia:
- more common in females, large birth, oligohydramnios, first born, breech
= -femoral head unstable within acetabulum- may be loose in socket or completely dislocated
sx: asymptomatic or decreased ROM hip; diffificulty w/ diaper change; delayed crawling, standing, walking; gait asymmetry
early detection before 6 mos = best outcome
+ barlow/ortolani test
if not corrected results in mishapen acetabulum in adult + arthritis
SALTR classification - physeal (growth plate) fracture
S: Slip (epiphysis separated from shaft) A: Above - fracture through metaphysis L: Lower - fracture through epiphysis T: Through (epiphysis & metaphysis) R: Rammed