.
Peripheral Joint
Mobilization
Dr. Alam ZebDr. Alam Zeb
IPM&RIPM&R
Objectives
At the end of this lecture students will be
able to
• Define mobilization, Self-Mobilization, Mobilization with
Movement, physiologic movements, accessory
movements, arthrokinematics, muscle energy, thrust,
convex & concave surface,
• Describe Joint Shapes & Arthrokinematics
• Explain Convex-Concave & Concave-Convex Rule
• Describe Effects of Joint Mobilization
• Enumerate precautions & Contraindications for
Mobilization
• Describe Maitland Joint Mobilization Grading Scale
What is Joint Mobilization?
• Manual therapy technique
– Used to modulate pain
– Used to increase ROM
– Used to treat joint dysfunctions that limit
ROM by specifically addressing altered joint
mechanics
• Factors that may alter joint mechanics:
– Pain & Muscle guarding
– Joint hypomobility
– Joint effusion
– Contractures or adhesions in the joint
capsules or supporting ligaments
– Malalignment or subluxation of bony surfaces
Terminology
• Mobilization
– passive joint movement for increasing ROM or
decreasing pain
– Applied to joints & related soft tissues at varying speeds
& amplitudes using physiologic or accessory motions
– Force is light enough that patient’s can stop the
movement
• Manipulation
– passive joint movement for increasing joint
mobility
– Incorporates a sudden, forceful thrust that is
beyond the patient’s control
Terminology
• Self-Mobilization (Auto-mobilization)
– self-stretching techniques that specifically
use joint traction or glides that direct the
stretch force to the joint capsule
• Mobilization with Movement (MWM)
– Concurrent application of a sustained
accessory mobilization applied by a clinician,
Physiotherapist to end range and
physiological movement applied by the
patient
– Applied in a pain-free direction
Terminology
• Physiologic Movements
– movements done voluntarily
– Movements such as flexion, extension,
abduction, rotation
– Osteokinematics
• motions of the bones
• Arthrokinematics
– motions of bone surfaces within the joint .
– Also called joint play
– 5 motions
• Roll, Slide, Spin, Compression, Distraction
Accessory Movements
– Movements within the joint & surrounding tissues that
are necessary for normal ROM, but can not be
voluntarily performed
– Component motions
• motions that accompany active motion, but are not
under voluntary control
• Ex: Upward rotation of scapula & rotation of clavicle
that occur with shoulder flexion
– Joint play
• motions that occur within the joint
• Determined by joint capsule’s laxity
• Can be demonstrated passively, but not performed
actively
Terminology
• Muscle energy
– use an active contraction of deep muscles
that attach near the joint & whose line of pull
can cause the desired accessory motion
– Clinician stabilizes segment on which the
distal aspect of the muscle attaches;
command for an isometric contraction of the
muscle is given, which causes the
accessory movement of the joint
Terminology
• Thrust
– high-velocity, short-amplitude motion that the
patient can not prevent
– Performed at end of pathologic limit of the joint
(snap adhesions, stimulate joint receptors)
• Concave
– hollowed or rounded inward
• Convex
– curved or rounded outward
Relationship Between Physiological &
Accessory Motion
• Biomechanics of joint motion
– Physiological motion
• Result of concentric or eccentric active muscle
contractions
• flexion, extension, abduction, adduction or rotation
– Accessory Motion
• Motion of articular surfaces relative to one another
• Generally associated with physiological movement
• Necessary for full range of physiological motion to
occur
• Ligament & joint capsule involvement in motion
Joint Shapes
• Ovoid
– one surface is convex,
other surface is concave
– E.g. hip joint
• Sellar (saddle)
– one surface is concave in
one direction & convex in
the other, with the
opposing surface convex &
concave respectively
– Subtalar joint
Basic concepts of joint motion :
Arthrokinematics
Types of joint motion
• 5 types of joint arthrokinematics
– Roll
– Slide
– Spin
– Compression
– Distraction
• Joint motion usually often involves a
combination of rolling, sliding & spinning
Roll
• A series of points on one articulating
surface come into contact with a series of
points on another surface
– ball rolling on ground
– Example: Femoral condyles rolling on tibial plateau
– Roll occurs in direction of movement
– Occurs on incongruent (unequal) surfaces
– Usually occurs in combination with sliding or spinning
Slide
• Specific point on one surface comes into
contact with a series of points on another
surface
• Surfaces are congruent
• When a passive mobilization technique is
applied to produce a slide in the joint –
referred to as a GLIDE.
• Combined rolling-sliding in a joint
– The more congruent the surfaces are, the more
sliding there is
– The more incongruent the joint surfaces are, the
more rolling there is
Spin
• Occurs when one bone rotates around a
stationary longitudinal mechanical axis
– Same point on the moving surface creates an
arc of a circle as the bone spins
• Example: Shoulder with flexion/extension,
the hip with flexion/extension, and Radial
head at the humeroradial joint during
pronation/supination
• Compression
– Decrease in space between two joint surfaces
– Adds stability to a joint
– Normal reaction of a joint to muscle
contraction
• Distraction
– Two surfaces are pulled apart
– Often used in combination with joint
mobilizations to increase stretch of capsule.
Convex-Concave & Concave-Convex Rule
• Basic application of correct
mobilization techniques
• One joint surface is MOBILE & one
is STABLE
• Concave-convex rule: concave
joint surfaces slide in the SAME
direction as the bone movement
(convex is STABLE)
– If concave joint is moving on
stationary convex surface – glide
occurs in same direction as roll
Convex-concave rule: convex joint surfaces
slide in the OPPOSITE direction of the bone
movement (concave is STABLE)
If convex surface in moving on stationary
concave surface – gliding occurs in opposite
direction to roll
Effects of Joint Mobilization
• Neurophysiological effects
– Stimulates mechanoreceptors to  pain
– Affect muscle spasm & muscle guarding –
nociceptive stimulation
– Increase in awareness of position & motion
because of afferent nerve impulses
• Nutritional effects
– Distraction or small gliding movements – cause
synovial fluid movement
– Movement can improve nutrient exchange
• Mechanical effects
– Improve mobility of hypo-mobile joints
(adhesions & thickened Connective tissue
from immobilization – loosens)
– Maintains extensibility & tensile strength of
articular tissues
Contraindications for
Mobilization
• Avoid the following:
– Inflammatory arthritis
– Malignancy
– Tuberculosis
– Osteoporosis
– Ligamentous rupture
– Herniated disks with nerve
compression
– Bone disease
– Neurological involvement
– Bone fracture
– Congenital bone
deformities
– Vascular disorders
– Joint effusion
• May use I & II
mobilizations to relieve
pain
Precautions
• Osteoarthritis
• Pregnancy
• Total joint replacement
• Severe scoliosis
• Poor general health
• Patient’s inability to relax
Articulating Techniques
(Maitland)
Articulations are graded oscillations, used to restore
joint play, component motion, or range of motion in a
hypo-mobile joint.
The extent of accessory movement from beginning to
end of range.
Grades for Normal Range
Grade I Oscillation
• Small amplitude movement – start of
resistance (R1) at the beginning of range
of movement
• Gentle oscillation used for pain relief
• Requires great control to remain within the
required small amplitude
Grade II Oscillation
•Large amplitude movement – start of resistance
(R1) within midrange of movement
•Can occupy any part of the range that is free of
any stiffness or spasm
•Never reach into resistance, always resistance-
free movements
Grade III Oscillations
• Large amplitude movement to mid-point
of resistance (50% of R1 – R2) up to
point of limit of the available motion
• Move from R1 to half way between R1
and R2
Grade IV Oscillations
• Small amplitude movement to the mid-point
of resistance– between R1 and R2 at very
end range of movement
• Oscillatory movement often stretching into
stiffness or spasm
Grade V Oscillations
• Small amplitude, high velocity thrust at the end of motion
– at R2
• Single thrust once patient is correctly positioned – may or
may not be an audible associated
• Manipulations include the same techniques as
articulations but incorporate a high velocity thrust.
• The thrust is usually a short arc at the end of the available
range of motion, i.e at or close to R2.
Grades for Normal Range
Indications for Mobilization
• Grades I and II
– primarily used for pain
– Pain must be treated prior to stiffness
– Painful conditions can be treated daily
– Small amplitude oscillations stimulate
mechanoreceptors - limit pain perception
• Grades III and IV
– primarily used to increase motion
– Stiff or hypomobile joints should be treated 3-4
times per week – alternate with active motion
exercises
Joint Positions
• Resting position
– Maximum joint play - position in which joint
capsule and ligaments are most relaxed
– Evaluation and treatment position utilized with
hypomobile joints
• Loose-packed position
– Articulating surfaces are maximally separated
– Joint will exhibit greatest amount of joint play
– Position used for both traction and joint
mobilization
• Close-packed position
–Joint surfaces are in maximal contact to
each other
• General rule:
– Extremes of joint motion are close-packed, &
midrange positions are loose-packed.
Joint Mobilization Application
• All joint mobilizations follow the convex-
concave rule
• Patient should be relaxed
• Explain purpose of treatment & sensations
to expect to patient
• Evaluate BEFORE & AFTER treatment
goniometry
• Stop the treatment if it is too painful for the
patient
• Use proper body mechanics
• Use gravity to assist the mobilization
technique if possible
• Begin & end treatments with Grade I or II
oscillations
Positioning & Stabilization
• Patient & extremity should be positioned so
that the patient can RELAX
• Initial mobilization is performed in a loose-
packed position
– In some cases, the position to use is the one in
which the joint is least painful
• Firmly & comfortably stabilize one joint
segment, usually the proximal bone
– Hand, belt, assistant
– Prevents unwanted stress & makes the
stretch force more specific & effective
Treatment Force & Direction of
Movement
• Treatment force is applied as close to the
opposing joint surface as possible
• The larger the contact surface is, the more
comfortable the procedure will be (e.g. use
flat surface of the hand instead of forcing
with the thumb)
• Direction of movement during treatment is
either PARALLEL or PERPENDICULAR to
the treatment plane
Treatment Direction
• Treatment plane lies on the
concave articulating surface,
perpendicular to a line from
the center of the convex
articulating surface
• Joint traction techniques are
applied perpendicular to the
treatment plane
– Entire bone is moved so that the
joint surfaces are separated
• Gliding techniques are applied parallel to
the treatment plane
• Glide in the direction in which the slide
would normally occur for the desired
motion
• Direction of sliding is easily determined by
using the convex-concave rule. The entire
bone is moved so that there is gliding of
one joint surface on the other.
• The bone should not be used as a lever; it
should have no arcing motion (swing) that
would cause rolling and thus compression
of the joint surfaces.
• When using grade III gliding techniques, a
grade I distraction should be used
• If gliding in the restricted direction is too
painful, begin gliding mobilizations in the
painless direction then progress to gliding
in restricted direction when not as painful
• Reevaluate the joint response the next
day or have the patient report at the
next visit
– If increased pain, reduce amplitude of
oscillations
– If joint is the same or better, perform either
of the following:
• Repeat the same maneuver if goal is to
maintain joint play
• Progress to sustained grade III traction or
glides if the goal is to increase joint play
? ?
Q
Q
Q
Q
Q
?
Q
?
?
?
?
?
? ?
??
?
?
?
Q
Q
Q
Joint mobilization AmiR

Joint mobilization AmiR

  • 1.
  • 2.
    Peripheral Joint Mobilization Dr. AlamZebDr. Alam Zeb IPM&RIPM&R
  • 3.
    Objectives At the endof this lecture students will be able to • Define mobilization, Self-Mobilization, Mobilization with Movement, physiologic movements, accessory movements, arthrokinematics, muscle energy, thrust, convex & concave surface, • Describe Joint Shapes & Arthrokinematics • Explain Convex-Concave & Concave-Convex Rule • Describe Effects of Joint Mobilization • Enumerate precautions & Contraindications for Mobilization • Describe Maitland Joint Mobilization Grading Scale
  • 4.
    What is JointMobilization? • Manual therapy technique – Used to modulate pain – Used to increase ROM – Used to treat joint dysfunctions that limit ROM by specifically addressing altered joint mechanics
  • 5.
    • Factors thatmay alter joint mechanics: – Pain & Muscle guarding – Joint hypomobility – Joint effusion – Contractures or adhesions in the joint capsules or supporting ligaments – Malalignment or subluxation of bony surfaces
  • 6.
    Terminology • Mobilization – passivejoint movement for increasing ROM or decreasing pain – Applied to joints & related soft tissues at varying speeds & amplitudes using physiologic or accessory motions – Force is light enough that patient’s can stop the movement • Manipulation – passive joint movement for increasing joint mobility – Incorporates a sudden, forceful thrust that is beyond the patient’s control
  • 7.
    Terminology • Self-Mobilization (Auto-mobilization) –self-stretching techniques that specifically use joint traction or glides that direct the stretch force to the joint capsule • Mobilization with Movement (MWM) – Concurrent application of a sustained accessory mobilization applied by a clinician, Physiotherapist to end range and physiological movement applied by the patient – Applied in a pain-free direction
  • 8.
    Terminology • Physiologic Movements –movements done voluntarily – Movements such as flexion, extension, abduction, rotation – Osteokinematics • motions of the bones • Arthrokinematics – motions of bone surfaces within the joint . – Also called joint play – 5 motions • Roll, Slide, Spin, Compression, Distraction
  • 9.
    Accessory Movements – Movementswithin the joint & surrounding tissues that are necessary for normal ROM, but can not be voluntarily performed – Component motions • motions that accompany active motion, but are not under voluntary control • Ex: Upward rotation of scapula & rotation of clavicle that occur with shoulder flexion – Joint play • motions that occur within the joint • Determined by joint capsule’s laxity • Can be demonstrated passively, but not performed actively
  • 10.
    Terminology • Muscle energy –use an active contraction of deep muscles that attach near the joint & whose line of pull can cause the desired accessory motion – Clinician stabilizes segment on which the distal aspect of the muscle attaches; command for an isometric contraction of the muscle is given, which causes the accessory movement of the joint
  • 11.
    Terminology • Thrust – high-velocity,short-amplitude motion that the patient can not prevent – Performed at end of pathologic limit of the joint (snap adhesions, stimulate joint receptors) • Concave – hollowed or rounded inward • Convex – curved or rounded outward
  • 12.
    Relationship Between Physiological& Accessory Motion • Biomechanics of joint motion – Physiological motion • Result of concentric or eccentric active muscle contractions • flexion, extension, abduction, adduction or rotation – Accessory Motion • Motion of articular surfaces relative to one another • Generally associated with physiological movement • Necessary for full range of physiological motion to occur • Ligament & joint capsule involvement in motion
  • 13.
    Joint Shapes • Ovoid –one surface is convex, other surface is concave – E.g. hip joint • Sellar (saddle) – one surface is concave in one direction & convex in the other, with the opposing surface convex & concave respectively – Subtalar joint
  • 14.
    Basic concepts ofjoint motion : Arthrokinematics Types of joint motion • 5 types of joint arthrokinematics – Roll – Slide – Spin – Compression – Distraction • Joint motion usually often involves a combination of rolling, sliding & spinning
  • 15.
    Roll • A seriesof points on one articulating surface come into contact with a series of points on another surface – ball rolling on ground – Example: Femoral condyles rolling on tibial plateau – Roll occurs in direction of movement – Occurs on incongruent (unequal) surfaces – Usually occurs in combination with sliding or spinning
  • 16.
    Slide • Specific pointon one surface comes into contact with a series of points on another surface • Surfaces are congruent • When a passive mobilization technique is applied to produce a slide in the joint – referred to as a GLIDE. • Combined rolling-sliding in a joint – The more congruent the surfaces are, the more sliding there is – The more incongruent the joint surfaces are, the more rolling there is
  • 17.
    Spin • Occurs whenone bone rotates around a stationary longitudinal mechanical axis – Same point on the moving surface creates an arc of a circle as the bone spins • Example: Shoulder with flexion/extension, the hip with flexion/extension, and Radial head at the humeroradial joint during pronation/supination
  • 18.
    • Compression – Decreasein space between two joint surfaces – Adds stability to a joint – Normal reaction of a joint to muscle contraction • Distraction – Two surfaces are pulled apart – Often used in combination with joint mobilizations to increase stretch of capsule.
  • 19.
    Convex-Concave & Concave-ConvexRule • Basic application of correct mobilization techniques • One joint surface is MOBILE & one is STABLE • Concave-convex rule: concave joint surfaces slide in the SAME direction as the bone movement (convex is STABLE) – If concave joint is moving on stationary convex surface – glide occurs in same direction as roll
  • 20.
    Convex-concave rule: convexjoint surfaces slide in the OPPOSITE direction of the bone movement (concave is STABLE) If convex surface in moving on stationary concave surface – gliding occurs in opposite direction to roll
  • 22.
    Effects of JointMobilization • Neurophysiological effects – Stimulates mechanoreceptors to  pain – Affect muscle spasm & muscle guarding – nociceptive stimulation – Increase in awareness of position & motion because of afferent nerve impulses • Nutritional effects – Distraction or small gliding movements – cause synovial fluid movement – Movement can improve nutrient exchange
  • 23.
    • Mechanical effects –Improve mobility of hypo-mobile joints (adhesions & thickened Connective tissue from immobilization – loosens) – Maintains extensibility & tensile strength of articular tissues
  • 24.
    Contraindications for Mobilization • Avoidthe following: – Inflammatory arthritis – Malignancy – Tuberculosis – Osteoporosis – Ligamentous rupture – Herniated disks with nerve compression – Bone disease – Neurological involvement – Bone fracture – Congenital bone deformities – Vascular disorders – Joint effusion • May use I & II mobilizations to relieve pain
  • 25.
    Precautions • Osteoarthritis • Pregnancy •Total joint replacement • Severe scoliosis • Poor general health • Patient’s inability to relax
  • 26.
    Articulating Techniques (Maitland) Articulations aregraded oscillations, used to restore joint play, component motion, or range of motion in a hypo-mobile joint. The extent of accessory movement from beginning to end of range.
  • 27.
  • 28.
    Grade I Oscillation •Small amplitude movement – start of resistance (R1) at the beginning of range of movement • Gentle oscillation used for pain relief • Requires great control to remain within the required small amplitude
  • 29.
    Grade II Oscillation •Largeamplitude movement – start of resistance (R1) within midrange of movement •Can occupy any part of the range that is free of any stiffness or spasm •Never reach into resistance, always resistance- free movements
  • 30.
    Grade III Oscillations •Large amplitude movement to mid-point of resistance (50% of R1 – R2) up to point of limit of the available motion • Move from R1 to half way between R1 and R2
  • 31.
    Grade IV Oscillations •Small amplitude movement to the mid-point of resistance– between R1 and R2 at very end range of movement • Oscillatory movement often stretching into stiffness or spasm
  • 32.
    Grade V Oscillations •Small amplitude, high velocity thrust at the end of motion – at R2 • Single thrust once patient is correctly positioned – may or may not be an audible associated • Manipulations include the same techniques as articulations but incorporate a high velocity thrust. • The thrust is usually a short arc at the end of the available range of motion, i.e at or close to R2.
  • 33.
  • 35.
    Indications for Mobilization •Grades I and II – primarily used for pain – Pain must be treated prior to stiffness – Painful conditions can be treated daily – Small amplitude oscillations stimulate mechanoreceptors - limit pain perception • Grades III and IV – primarily used to increase motion – Stiff or hypomobile joints should be treated 3-4 times per week – alternate with active motion exercises
  • 36.
    Joint Positions • Restingposition – Maximum joint play - position in which joint capsule and ligaments are most relaxed – Evaluation and treatment position utilized with hypomobile joints • Loose-packed position – Articulating surfaces are maximally separated – Joint will exhibit greatest amount of joint play – Position used for both traction and joint mobilization
  • 37.
    • Close-packed position –Jointsurfaces are in maximal contact to each other • General rule: – Extremes of joint motion are close-packed, & midrange positions are loose-packed.
  • 38.
    Joint Mobilization Application •All joint mobilizations follow the convex- concave rule • Patient should be relaxed • Explain purpose of treatment & sensations to expect to patient • Evaluate BEFORE & AFTER treatment goniometry
  • 39.
    • Stop thetreatment if it is too painful for the patient • Use proper body mechanics • Use gravity to assist the mobilization technique if possible • Begin & end treatments with Grade I or II oscillations
  • 40.
    Positioning & Stabilization •Patient & extremity should be positioned so that the patient can RELAX • Initial mobilization is performed in a loose- packed position – In some cases, the position to use is the one in which the joint is least painful
  • 41.
    • Firmly &comfortably stabilize one joint segment, usually the proximal bone – Hand, belt, assistant – Prevents unwanted stress & makes the stretch force more specific & effective
  • 42.
    Treatment Force &Direction of Movement • Treatment force is applied as close to the opposing joint surface as possible • The larger the contact surface is, the more comfortable the procedure will be (e.g. use flat surface of the hand instead of forcing with the thumb) • Direction of movement during treatment is either PARALLEL or PERPENDICULAR to the treatment plane
  • 43.
    Treatment Direction • Treatmentplane lies on the concave articulating surface, perpendicular to a line from the center of the convex articulating surface • Joint traction techniques are applied perpendicular to the treatment plane – Entire bone is moved so that the joint surfaces are separated
  • 45.
    • Gliding techniquesare applied parallel to the treatment plane • Glide in the direction in which the slide would normally occur for the desired motion • Direction of sliding is easily determined by using the convex-concave rule. The entire bone is moved so that there is gliding of one joint surface on the other. • The bone should not be used as a lever; it should have no arcing motion (swing) that would cause rolling and thus compression of the joint surfaces.
  • 46.
    • When usinggrade III gliding techniques, a grade I distraction should be used • If gliding in the restricted direction is too painful, begin gliding mobilizations in the painless direction then progress to gliding in restricted direction when not as painful
  • 47.
    • Reevaluate thejoint response the next day or have the patient report at the next visit – If increased pain, reduce amplitude of oscillations – If joint is the same or better, perform either of the following: • Repeat the same maneuver if goal is to maintain joint play • Progress to sustained grade III traction or glides if the goal is to increase joint play
  • 48.

Editor's Notes

  • #23 http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1150231/http://www.ncbi.nlm.nih.gov/pmc/articles/PMC3143008/