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108 Cards in this Set

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contraindications for cranial manipulation
pt has or might have an intracranial bleed, a CNS infection or malignancy, or a craniofacial fracture
cranial manipulation (CR)
treats cranial venous sinuses - improves blood flow to alleviate cranial pressure
cranial rhythmic impulse
cyclic fluctuations you can palpate. Caused by pressure changes. Peak pressure --> cranial flexion
cranial somatic dysfunction
to diagnose check rate (should be 10-14 cycles/min), amplitude (graded 0-5, 4-5 is nl, 0 indicates cranial base compression), symmetry
entrainment model
CRI may be the palpable summation of multiple intrinsic oscillations into a frequency selective entrainment mediated by ANS. [fluctuation of various fluid changes in body synchronized by the ANS balance. Result of pressure changes (synchronize the rhythm)]
extension (cranial)
cranium becomes long, more ovoid
flexion (cranial)
cranum becomes shorter, rounder. Peak pulse pressure --> flexion
indications for Cranial maniupulation
SD associated with headache, neck pain(occiput), upper resp. congestion, cranial nerve dysfunction, TMJ dysfunction, otitis media, torticollis
inherent motion
motility - how much tissues move around
mobility
passive secondary motion - associated with tissue pressure
motility
inherent motion
osteopathy in the cranial field is indicated for
cranial SD associated with headache, neck pain, Upper Resp. congestion, cranial nerve dysfunction, torticollis, mood disorders, plagiocephaly, infant feeding disorders
primary respiratory mechanism model
sutherland's theory that cranial mobility is due to: 1. motility of brain and spinal cord (not proven - may or may not play a role). 2. fluctuation of CSF - surges= periodic and correspond to BP. 3. mobility of intracranial and intraspinal membranes. proven - attachments of dura mater. 4. mobility of cranial bones. 5. involuntary mobility of sacrum between the ileum (sacrum moves with head somewhat)
pulse pressure
the difference between systolic and diastolic pressure. Drives cranial mobility. Varies cyclically, driven by sympathetic tone. Pathological changes narrow pulse pressure --> e.g. 120/90
tissue pressure model
CRI corresponds to tissue pressure - cyclic volume variations in both BP and Cranial rhythmic impulse
traub-herring-mayer oscillation
Rhythmical variations in blood pressure, usually extending over several respiratory cycles, with a frequency varying from 6 to 10 cycles a minute, related to variations in vasomotor tone.
venous sinus drainage
pressure treatment at sutures improves venous drainage of cranial sinuses. Increases sinus drainage from head--> improving headache, circ.
william garner sutherland
D.O that rediscovered that the skull has mobility transmitted outwards from internal pressure via the sutures. Can treat skull at sutures by affecting attached membranes
asymmetry in cranial rhythms is due to
cranial base strains, membrane strains, bone restrictions
flexibility of sutures
provides brain with some protection
sacral motion corresponds to
cranial motion due to attachments of dura mater
barrier
important in diagnosis. Must be engaged (ME is a direct technique). Muscle contraction is away from the barrier (advance the barrier by having the pt flex away from it)
conditioning
less tissue resistance with repeated stretch. Condition/train muscle to relax
contraindications to muscle energy
rel: fractures, sprains, cancer or infection, DVT. Treat c caution: osteoporosis (m. evulsion can occur), osteoarthritis, undiagnosed neuropathy, joint inflammation, pt. guarding
creep
"tissue creep" - constant load causes tissue to give - loosen
direct method
engages a barrier. Muscle energy is a direct technique.
fryette'
proper fryette's diagnosis can allow spine to be treated with muscle energy
indirect method
MFR, for example. Moves away from tissue restriction
isometric contraction
contraction where length of muscle does not change (muscle does not shorten)
golgi tendon reflex
GTO - responds to tension in muscles. Strong pull triggers muscle relaxation (give) to prevent tearing. Yoga uses this
ligamentous laxity
hypermobility --> leads to joint instability
localization
isolating/engaging the correct muscle/body part at the barriers in all planes.
muscle energy
patient voluntarily moves the body as directed by a doctor. Directed patient action = controlled position against a defined resistance.
muscle spindle
responds to change in length of muscle and the velocity of the change. If too quick - will initiate a stretch reflex --> cause muscle to contract to counteract the stretch. Why you must advance slowly
muscle stretch
post-isometric facilitation
neuromuscular apparatus is refractory temporarily removing the myotactic (stretch) reflex
proprioceptive neuromuscular facilitation
muscle energy treatment
in the muscle energy technique, the muscle contraction should occur
away from the barrier.
e.g. pt's biceps restricted - position at the barrier, have pt. contract the extensors.
localization of muscle energy techniques refers to
positioning the muscle against barriers of all planes
reciprocal inhibition
reflex relaxation of the antagonist. (allows agonist to move)
*in OPP ME treatment there is a small but significant
change in active ROM
neurologic mechanism
reduces tension, stretches the barrier - induces relaxation response in muscle.
ankle inversion sprain
85% of all ankle sprains, most occur while plantar flexed. Dirupts lateral ligaments. Foot= inverted (sole pushes up medially)
anterior drawer test
tests ATFL. Greater than 3 mm is a positive test, indicates ATF compromise.
ankle swing test
tests for restriction in glide of talus. Hold feet horizontally, push posteriorly.
Positive ankle swing test: restricted posterior talus glide. SD Anterior talus, SD plantar flexed ankle
ant. talofibular lig.
the only ligament preventing anterior subluxation of the talus. Is ruptured first in an inversion ankle sprain.
cuboid
lateral on foot. Makes up proximal transverse arch with the navicular (medial). Glides in plantar direction under weight bearing (or pes planus).
fibular head
proximal portion of fibula, slightly posterior to the tibia. Glides anterolaterally or posteromedially. Moves in the opposite direction of the distal fibula
fibular/peroneal neuritis
entrapment of the fibular nerve (L4-S2). causes dythesias of lateral leg and foot, weak ankle plantarflexion and eversion.
fibular nerve runs behind the fibular head - consider SD posterior fib. head
interosseous membrane testing - lower limb
connects the tibia and fibula. Injury in inteross. Mem. Can be detected by the squeeze test.
metatarsal
between phalanges and the cuneiform bones and cuboid.
myofascial restriction of forefoot
can transmit restriciton to plantar fascia --> plantar fascitis
navicular
medial on foot. Makes up proximal transverse arch with cuboid.
medial longitudinal arch
reduced in pes planus. -- produces a valgus strain. Elevated in pes cavus --> varus strain
pes planus
flat feet, reduced medial long. Arch. Valgus strain on knees and ankles. Eversion of forefeet and ankle (turn in). Causes talus anterior glide, navicular and cuboid plantar glide
plantar fascitis
inflammation of plantar fascia. Tenderness at anteromedial calcaneus. Can result from pes planus. Result of weight-bearing of the soft tissue repetitively. (think runner!) self-resolving 6-18 months. Heel pain with first few steps in the am
red flags - ankle injury that suggest fracture
unable to bear weight, point tenderness over post edge of malleoli, 5th metatarsal base, navicular, proximal fibula. Do squeeze test, radiographs to check widening of the mortise joint
squeeze test
detects interosseous membrane, syndesmosis strain/problem. Thenar eminences placed on distal tibia and fibula. Squeeze 2 sec. Pos. sign = pain.
syndesmosis
connects the tibia and fibula distally. Ligamentous bone-bone
talus
tibia rests on talus. Ankle joint = talotibial joint. Glides anteriorly with plantar flexion (PAT), glides posteriorly with dorsiflexion (DPT)
talotibial range of motion
dorsiflexion (15-20) and plantar flexion (50-65)
tarsal bones
bones of foot (pre-metatarsal)
tarsal tunnel syndrome
entrapment of the tibial nerve in the tarsal tunnel (between flexor retinaculum and talus).
ankle mortise joint
distal tibia and fibula and the proximal talus. gliding motion.
transverse arch
cross-sectional arch - formed by the navicular and the cuboid at the base of the metatarsal heads
distal fibular anterior =
somatic disfunction plantar flexion, restriction dorsiflexion
SD fibular head anterior -
means distal fibula is posterior (in dorsiflexion)
atypical vertebrae
C1 and C2
spurling's test
spurling. Specific for radiculopathy but not sensitive (negative test does not rule out herniated disc). Press on head with extension and sidebending
cervical compression test
place hands on top of head without flexing or extending. Pos. test - arm pain, numbness, tingling. Specific but not sensitive.
cervical somatic dysfunction
structural exam shows TART (tissue texture abnormality, asymmetry, restriction in motion, tenderness). Can occur in Flexion, extension, or neutral.
cervical strain and sprain
treatment goal: reduce edema and acute tissue reaction, restore ROM. OMT, ice, rest, NSAID, nighttime muscle relaxor, manage pain, improve pt's activities
cervical HVLA
HVLA - high velocity low amplitude. Thrust.
muscle energy technique for C2-C7
2 techniques - sidebending and rotation. Diagnosis: FRS right. SB technique: Extend, SB left, rotate R. Rot technique: Extend, rotate left, SB right.
tension cephalgia
headache
typical cervical vertebrae
C2 inferior facet through C7
vertebral artery challenge test
aka de Klejn's maneuver. Screen for vertebral artery insufficiency before cervical manipulation. Rotate and extend head and observe the eyes. Maintain for 20 sec on each side. Positive test: HVLA contraindicated. Nystagmus, dizziness, pallor, sweating, tinnitus (ringing in ears)
vertebral artery dissection
tear in the vertebral artery. Blood enters artery wall--> intramural hematoma. Can occur during thrust techniques. Rare and unpredictable
foramen transversarium
located in C1-C7. house the vertebral artery
uncinate processes
protect cervical spine- posterior on vert. project inferiorly for a "shingling" effect. Helps prevent herniation
most common herniated disc
C6 spinal root (C5-C6 disc)
most cervical sidebending occurs in the
lower cervicals
primary motion of the occipito-atlantal joint
flexion/extension
primary motion of the atlantoaxial joint
rotation (50% cervical rotation occurs here)
cervical radiculopathy
pain/sensation change in arms due to nerve compression in neck. Paracervical tenderness, loss of ROM esp rotation, relief with vertical traction. Do x-rays, MRI to detect herniated disc.
radiculopathy
nerves are affected, do not work properly - problem in nerve root. Can lead to pain in areas far from point of compression
torticolis
ear to neck presentation. Neck muscles lock down due to acute spasm or herniated nucleus pulposis
dorsokyphosis
increased kyphotic curve of thoracic vert - due to depression, adv. Age
most sensitive indicator of neck pathlogy
loss of rotation
passive ROM for neck
90 degree rotation in each direction
if loss of neck ROM
do an Xray - neurologic exam of upper extremities
most commonly irritated neck muscle
trapezius
effect of herniated nucleus pulposis
narrows neuroforaminal space up to 50%. Nerve root occupies 30% of this space.
wallenberg's test
with pt supine hold each position for 10 seconds: flexion, extension, extension and rot. Right, extension and rot. Left. Positive test: nystagmus, dizziness, visual disturbance
atypical cervical vertebrae
occipital-atlanto segment (c0-C1) - rotation and sidebending occur to opposite sides - R:R, S:L
atlantoaxial segment (C1-C2): entirely rotation
cervical counterstrain - posterior tenderpoint
extend head, sidebend and rotate AWAY from tenderpoint
cervical counterstrain - anterior tenderpoint
flex head, AC2-C6 - sidebend and rotate away from tender point. AC7 sidebend toward and rotate away from tenderpoint
risks with HVLA
temp. increase in neck pain, muscle spasm, guarding, arthralgia. Dizziness. Risk cervical strain and sprain with Downs syndrome and Rheumatoid arthritis and hypermobility. Vertebral artery dissection
whiplash
most common cause of cervical strain and sprain.
cervical sprain
ligamentous stretch injury. Joint injury without fracture or dislocation
cervical strain
muscular injury. (less strict def. Includes cervical disc and facet joint ligaments.)
What mechanisms allow ME to work?
tissue creep, conditioning, post-isometric relaxation, activation of golgi tendon reflex, reciprocal inhibition
reciprocal inhibition
in a myotactic reflex, antagonist relaxes while agonist contracts
muscle energy treatment position
Directly into barrier (restriction). Pt contracts muscle opposite the restriction.
the talus glides this direction in planterflexion
anteriorly
the distal fibula glides posteriorly in
dorsiflexion
When an ankle in plantar flexed, the talus is ___ and the distal fibula is ___
talus: anterior, dist. fibula: anterior
muscle energy treatment for SD fibular head posterior
Practitioner:
1. pulls fibular head anteriorly.
2. dorsiflexes the foot
Pt.: 3. plantar flexes the foot