Soft Tissue and Myofascial Release Techniques Flashcards

1
Q

Fascial Anatomy

A

Generally speaking, these connective tissue layers are
composed of collagen fibers (and occasionally also
elastin fibers) in an amorphous matrix of hydrated
proteoglycans (PGs), which mechanically links the
collagen fiber networks in these structures.

EMC 95%, Cells: 5%

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2
Q

Fascia

A

A complete system with blood supply,
fluid drainage & innervations – Thus, fascia comprises the largest organ system in the body
• Composed of irregularly arranged fibrous
elements of varying density
• Fn: Involved in tissue protection &
healing of surrounding systems

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3
Q

Fascia is not:

A

Tendons
• Ligaments
• Aponeuroses

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4
Q

Continuity of Fascia

A

Perimysium (fascia), peritendium, periosteum

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5
Q

Pannicular Fascia (aka Panniculus)

A

Outermost layer of fascia derived from somatic
mesenchyme & surrounds entire body with
exception of the orifices; outer layer is adipose
tissue & inner layer is membranous & adherent,
generally, to the outer portion
• Axial & Appendicular Fascia (aka investing layer)
• Meningeal Fascia
• Visceral Fascia

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6
Q

Axial & Appendicular Fascia (aka

investing layer)

A

Internal to the pannicular layer; fused to the
panniculus and surrounds all of the muscles, the
periosteum of bone & peritendon of tendons

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7
Q

Meningeal Fascia

A

Surrounds the nervous system; includes

the dura

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8
Q

Visceral Fascia

A

Surrounds the body cavities (pleural,

pericardial & peritoneum

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9
Q

Viscoelastic Material

A

Any material that deforms according to rate of loading and deformity

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10
Q

Stress

A

s is the force that
attempts to deform a connective
tissue structure.

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11
Q

Strain

A

is the percentage of
deformation of a connective
tissue.

During cyclic loading of tendon, the stress-strain
curve gradually shifts to the right

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12
Q

Hysteresis

A
The difference between the loading
and unloading characteristics
represents energy that is lost in the
connective tissue system; this
energy loss

Stretching connective tissue into its’
plastic deformational range will
bring about a lengthening of the
tissue.

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13
Q

Creep

A

Connective tissue under a sustained, constant load (below failure
threshold), will elongate (deform) in response to the load.

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14
Q

Ease

A

The direction in which the connective tissue may be moved most
easily during deformational stretching.
• Palpated as a sense of tissue “looseness”, or laxity or greater degree
of mobility.

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15
Q

Wolff’s Law

A
“Bone will develop according to
the under stresses placed upon
it.”
• This concept extends to fascia,
too.
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16
Q

Somatic Dysfunction

A
Impaired or altered function of:
– Skeletal,
– Arthroidal, and
– Myofascial structures, and their related
– Vascular,
– Lymphatic,
– Neural elements
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17
Q

Sherrington

’s Law:

A

When a muscle receives a nerve impulse to contract, its antagonists receive an impulse to relax.

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18
Q

Common Compensatory

• 80% of healthy people

A

L/R/L/R

19
Q

Uncommon Compensatory

A

20% of healthy people

• R/L/R/L

20
Q

Uncompensated Pattern

A

Usually symptomatic

• Usually a trauma is involved

21
Q

Transition Zones of the

Spine

A

OA, C1, C2
C7, T1
T12, L1
L5, Sacrum

22
Q

Transverse

Restrictors

A

Tentorium Cerebelli
Thoracic Inlet
Thoracolumbar Diaphragm
Pelvic diaphragm

23
Q

Tissue texture abnormality & Asymmetry of tissues

A

Tx Goal: Stretch and increase the elasticity of shortened myofascial structures to return
symmetry – Tx Goal: Improve local tissue nutrition, oxygenation, and removal of metabolic wastes to normalize tissue texture

24
Q

Asymmetry of muscles – Hypertonic muscles – Muscle spasm

A

Tx Goal: return symmetry & normalize tone

25
Q

Restricted motion of soft tissue – Myofascial restrictions

A

Tx Goal: set the fascia free

26
Q

Tenderness – Abnormal neurologic activity

A

Tx Goal: Normalize neurologic activity (pain, guarding & proprioception) & Improve abnormal somato-somatic and somato-visceral reflexes

27
Q

ST Indications

A

Diagnostically to identify areas of restricted motion, tissue texture
changes, and sensitivity
• Feedback about tissue response to OMT
• Improve local and systemic immune response
• Provide a general state of relaxation
• Enhance circulation to local myofascial structures
• Provide a general state of tonic stimulation

28
Q

Individual techniques may be contraindicated in specific

situations such as:

A

Severe osteoporosis
– prone pressure techniques may be contraindicated in the thoracocostal region,
but lateral recumbent techniques could be easily applied.

Acute Injuries
– Direct techniques that stretch acutely injured muscles, tendons, ligaments, or
joint capsules may do additional damage to these structures, or increase the
amount of pain the patient experiences and are therefore contraindicated.

29
Q

Contraindicated for use in the local region of any of the

following conditions:

A
Fracture or dislocation
• Neurologic entrapment syndromes
• Serious vascular compromise
• Local malignancy
• Local infection (e.g., cellulitis, abscess, septic arthritis, osteomyelitis)
• Bleeding disorders
30
Q

Principles of ST Technique

A

Patient comfort
• Physician comfort: to minimize energy expenditure
• Initially, the applied forces are very gentle and of low
amplitude. The force is applied rhythmically, typically 1 or 2
seconds of stretch followed by a similar time frame releasing that
stretch
• As the soft tissues are palpated responding to the technique, the
applied forces can be increased to increase the amplitude of the
technique. The rate of application typically remains the same

31
Q

Principles of ST Technique

A

The applied forces should be comfortable for the patient. Some
patients experience some discomfort, but it is recognized by the patient
as a good discomfort

Do not allow your hands to create friction by sliding across or rubbing
the skin. The physician’s hand should carry the skin and
subcutaneous tissues in applying the activating force.
• The technique is continued until the desired effect is achieved. This
typically means that the amplitude of excursion of the soft
tissues has reached a maximum and has plateaued at that
level.
F

32
Q

Stretch (parallel

traction)

A

Increase distance
between origin and
insertion (parallel
with muscle fibers

33
Q

In this type of soft tissue technique, the forces being
applied are parallel to the myofascial structures
needing treatment. This may be done by

A

Separating the proximal and distal attachments of
the muscle (both hands moving in opposite
directions like a taffy pull) or by
• Anchoring one end of the muscle and pulling on the
other (one hand or structure serving as a stationary
anchor, the other one mobile)

The taffy pull = Stretch

34
Q

Knead (perpendicular traction)

A

Repetitive pushing of tissue
perpendicular to muscle fibers

The bowstring = Kneading

35
Q

Inhibition

A

Push and hold perpendicular to the
fibers at the musculotendinous part
of hypertonic muscle.
• Hold until relaxation of tissue

36
Q

Myofascial Release

A

A system of diagnosis & treatment first described
by A.T. Still and his early students, which
engages continual palpatory feedback to achieve
release of myofascial tissues

37
Q

Integrated Neuromusulskeletal Release

A

A treatment system in which combined
procedures are designed to stretch & reflexively
release patterned soft tissue & joint related
restrictions

38
Q

REMs speed up the treatment price

A

Breath holding – The goal is to alter both intrathoracic & intraabdominal pressure using
costodiaphragmatic, shoulder girdle & lumbopelvic interactions
• Prone & supine simulated swimming & pendulum arm swing
maneuvers as direct & indirect barriers are released.
• R/L cervical rotation
• Isometric limb & neck movements against the table, chair…
• Patient evoked movement from cranial nerves (eye, tongue, jaw,
oropharynx)

39
Q

Indications of MFR

A

Somatic dysfunction – Almost all soft tissue or joint restrictions
• When HVLA or muscle energy is contraindicated – Consider indirect MFR
• When counterstrain may be difficult secondary to a patient’s
inability to relax.

40
Q

Contraindications of MFR

A

Absolute:
Lack of Patient Consent
Absence of Somatic Dysfunction

 Absence of Somatic Dysfunction
Relative:
 Infection of soft tissue or bone
 Fracture, Avulsion or dislocation
 Metastatic disease
 Soft tissue injuries: Thermal, Hematoma or Open wounds
 Post-op patient with wound dehiscence
 Rheumatologic condition involving instability of cervical spine
 DVT or Anticoagulation therapy
41
Q

Inherent Forces

A

using the body’s PRM (primary respiratory

mechanism)

42
Q

Respiratory Cooperation

A

Refers to a physician directed,
patient performed, inhalation or exhalation or a holding of the
breath to assist with the manipulative intervention.

43
Q

Patient Cooperation:

A

the patient is asked to move in specific

directions to aid in mobilizing specific areas of restriction

44
Q

MFR Treatment Endpoint

A

A three dimensional release is often palpated as: – Warmth – Softening – Increased compliance/ROM
• The continuous application of activating forces no longer produce
change
• When finished, recheck of the tissue demonstrates symmetry