Joint Range of Motion During Gait: Difference between revisions

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== Phases of Gait ==
== Phases of Gait ==
There are 8 phases of gait which are listed as follows:<ref name=":1">Loudon J, et al. The clinical orthopedic assessment guide. 2nd ed. Kansas: Human Kinetics, 2008. p.395-408.</ref><ref>Stöckel T, Jacksteit R, Behrens M, Skripitz R, Bader R, Mau-Moeller A. The mental representation of the human gait in young and older adults [Internet]. Frontiers in psychology. Frontiers Media S.A.; 2015 [cited 19-7-2022]. Available from: <nowiki>https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4500916/</nowiki> </ref>
There are 8 phases of gait which are listed as follows:<ref name=":1">Loudon J, et al. The clinical orthopedic assessment guide. 2nd ed. Kansas: Human Kinetics, 2008. p.395-408.</ref><ref>Stöckel T, Jacksteit R, Behrens M, Skripitz R, Bader R, Mau-Moeller A. [https://www.frontiersin.org/articles/10.3389/fpsyg.2015.00943/full The mental representation of the human gait in young and older adults.] Frontiers in psychology. 2015 Jul 14;6:943. </ref>


# Initial Contact
# Initial Contact
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# Late Swing <ref>Berger W, et al. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC1193250/pdf/jphysiol00583-0125.pdf Corrective reactions to stumbling in man: neuronal co-ordination of bilateral leg activity during gait]. J Physiol 1984;357: 109-125. [last accessed 19.7.2022]</ref>
# Late Swing <ref>Berger W, et al. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC1193250/pdf/jphysiol00583-0125.pdf Corrective reactions to stumbling in man: neuronal co-ordination of bilateral leg activity during gait]. J Physiol 1984;357: 109-125. [last accessed 19.7.2022]</ref>


See below for a diagram of the gait cycle -[[File:Adapted Gait Cycle.jpg|thumb|alt=|center|800x800px]]
See below for a diagram of the gait cycle [[File:Adapted Gait Cycle.jpg|thumb|alt=|center|800x800px]]


The video below shares a 90-second description of the basics of the gait cycle:{{#ev:youtube|DP5-um6SvQI|400}}<ref>Nicole Comninellis. The Gait Cycle Animation. Available from: https://www.youtube.com/watch?time_continue=35&v=DP5-um6SvQI [last accessed 19.7.2022]</ref>
The video below shares a 90-second description of the basics of the gait cycle:{{#ev:youtube|DP5-um6SvQI|400}}<ref>Nicole Comninellis. The Gait Cycle Animation. Available from: https://www.youtube.com/watch?time_continue=35&v=DP5-um6SvQI [last accessed 19.7.2022]</ref>
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{| class="wikitable"
{| class="wikitable"
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|+
Range of Motion Requirements during Foot Flat
Range of Motion (ROM) Requirements during Foot Flat
!Body part
!Body part
!ROM requirements
!ROM requirements
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{| class="wikitable"
{| class="wikitable"
|+
|+
Range of Motion (ROM) Requirements during Midstance
!Body part
!Body part
!ROM requirements
!ROM requirements
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|10-20° of hyperextension
|10-20° of hyperextension
|}
|}


'''Toe off'''
'''Toe off'''
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* 60-75% of gait cycle (beginning of swing phase)
* 60-75% of gait cycle (beginning of swing phase)
* Toe off until the swinging limb is even with the stance limb


*Function
*Function
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* 75-85% of gait cycle
* 75-85% of gait cycle
* Swinging limb is opposite the stance limb


*Function
*Function
**To clear lower extremity from the ground in order to advance into initial contac
**To clear lower extremity from the ground in order to advance into initial contact
*
*
{| class="wikitable"
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* 85-100% of gait cycle
* 85-100% of gait cycle
* Tibia vertical to initial contact
* Function
* Function
** To decelerate lower extremity to establish contact with the ground
** To decelerate lower extremity to establish contact with the ground
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== Maximum Values ==
== Maximum Values ==
Maximum range of motion values are the minimum prerequisites for a normal gait pattern.
Maximum range of motion values is the minimum prerequisites for a normal gait pattern.<ref>Kopelovich, A. Joint Range of Motion during Gait. Course. Plus. 2022</ref>
{| class="wikitable"
{| class="wikitable"
|+
|+
Maximum Range of Motion at Lower Extremity Joints during Gait Cycle
!Body part
!Body part
!Maximum ROM values
!Maximum ROM values
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== Gait Kinetics ==
== Gait Kinetics ==
'''Definitions:'''
'''Definitions'''


* Ground reaction force (GRF) - creates an external plantarflexion or dorsiflexion torque.
* Ground reaction force (GRF)  
** creates an external plantarflexion or dorsiflexion torque
** If GRF anterior to joint axis - causes anterior motion of the proximal segment
** If GRF is posterior to joint axis - causes posterior motion of the proximal segment


* Lower extremity gait musculature - creates an internal torque.
* Lower extremity gait musculature - creates an internal torque.
* Centre of pressure - point of application of pressure to the foot segment.
* Centre of pressure - point of application of pressure to the foot segment


'''Initial contact:'''
'''Initial contact'''


Ankle -
* Ankle  
** At initial contact - lateral calcaneus strikes the ground first.
** Point of application of GRF is slightly posterior to the axis of rotation of the foot and ankle joint - creates a plantarflexion moment at the ankle.
** Utilise dorsiflexors to oppose plantarflexor torque - internal torque controlled by tibialis anterior, extensor digitorum longus and extensor hallucis.


* At initial contact - lateral calcaneus strikes the ground first.
* Knee 
* Point of application of GRF is slightly posterior to the axis of rotation of the foot and ankle joint - creates a plantarflexion moment at the ankle.
** At initial contact - GRF is anterior to the knee joint creating anterior rotation of the femur.
* Utilise dorsiflexors to oppose plantarflexor torque - internal torque controlled by tibialis anterior, extensor digitorum longus and extensor hallucis.
** GRF wants to move into extension.  
** Utilise flexor musculature - hamstrings - in order to control progression.  


Knee -  
* Hip 
** GRF is anterior to hip joint - creating an external torque (anterior rotation) at the pelvis.
** Utilise extensor musculature - gluteal musculature - to oppose/control the progression or external torque.


* At initial contact - GRF is anterior to the knee joint creating anterior rotation of the femur.
'''Foot flat'''
* GRF wants to move into extension.
* Utilise flexor musculature - hamstrings - in order to control progression.


Hip -  
* Ankle 
** Centre of pressure remains at the posterior calcaneus - GRF remains posterior to the ankle.
** Utilise dorsiflexors to prevent plantarflexion from occurring at the ankle.


* GRF is anterior to hip joint - creating an external torque (anterior rotation) at the pelvis.
* Hip 
* Utilise extensor musculature - gluteal musculature - to oppose/control the progression or external torque.
** Centre of pressure and GRF remains the same - anterior to the axis of rotation.
** Anterior pelvic tilt creates a flexion torque.  
** Utilise extensor musculature to control this torque.  


'''Foot flat:'''
* Knee
** Range of motion moves from 0-15°
** GRF posterior to the axis of rotation of the knee joint - creates a flexion torque.
** Utilise extensor musculature to control knee from moving into flexion.


Ankle -  
'''Mid-stance'''


* Centre of pressure remains at the posterior calcaneus - GRF remains posterior to the ankle.
* Ankle 
* Utilise dorsiflexors to prevent plantarflexion from occurring at the ankle.
** GRF creates a clockwise torque of the proximal segment (on top of distal segment) - causing a dorsiflexion moment at the talocrural joint.  
** Utilise plantarflexors to oppose the external torque.  


Hip -  
* Knee 
** GRF creates an anterior (clockwise) torque of proximal segment (on top of distal segment) - wants to move into extension by femur moving anteriorly on tibia.
** Utilise flexors to oppose this torque - activates hamstrings.


* Centre of pressure and GRF remains the same - anterior to the axis of rotation.
* Hip 
* Anterior pelvic tilt creates a flexion torque.
** GRF is posterior to the axis of rotation - wants pelvis to move into a posterior pelvic tilt (extension).  
* Utilise extensor musculature to control this torque.
** Utilise flexors to oppose extension torque.  


Knee -
'''Heel off'''


* Range of motion moves from 0-15°.
* Ankle
* GRF posterior to the axis of rotation of the knee joint - creates a flexion torque.
** GRF is anterior to the axis of rotation of ankle joint - wants tibia to flex on talus.
* Utilise extensor musculature to control knee from moving into flexion.
** Creates external dorsiflexion moment at talocrural joint.  
** Utilise plantarflexors to oppose this moment.  


'''Mid-stance:'''
* Knee 
** GRF is anterior to knee joint - pulls femur into extension, creating an external extensor torque.
** Counteracted by internal flexor torque.


Ankle -  
* Hip 
** GRF is posterior to hip joint - creates an external extensor moment.
** Counteracted by internal flexor moment.


* GRF creates a clockwise torque of the proximal segment (on top of distal segment) - causing a dorsiflexion moment at the talocrural joint.
'''Toe off'''
* Utilise plantarflexors to oppose the external torque.
 
Knee -
 
* GRF creates an anterior (clockwise) torque of proximal segment (on top of distal segment) - wants to move into extension by femur moving anteriorly on tibia.
* Utilise flexors to oppose this torque - activates hamstrings.
 
Hip -
 
* GRF is posterior to the axis of rotation - wants pelvis to move into a posterior pelvic tilt (extension).
* Utilise flexors to oppose extension torque.
'''Heel off:'''
 
Ankle -
 
* GRF is anterior to the axis of rotation of ankle joint - wants tibia to flex on talus.
* Creates external dorsiflexion moment at talocrural joint.
* Utilise plantarflexors to oppose this moment.
 
Knee -
 
* GRF is anterior to knee joint - pulls femur into extension, creating an external extensor torque.
* Counteracted by internal flexor torque.
 
Hip -
 
* GRF is posterior to hip joint - creates an external extensor moment.
* Counteracted by internal flexor moment.
 
'''Toe off:'''
 
Ankle -
 
* Centre of pressure/GRF stay anterior to axis of rotation of ankle joint.
* Creates an external dorsiflexion moment.
* Counteracted by internal plantarflexion moment.
 
Knee -


* GRF is posterior to axis of rotation of knee joint as knee is moving into flexion.
* Ankle 
* Creates an external flexion moment.
** Centre of pressure/GRF stay anterior to axis of rotation of ankle joint.  
* Counteracted by an internal extensor (quadricep musculature) moment.
** Creates an external dorsiflexion moment.  
** Counteracted by internal plantarflexion moment.  


Hip -
* Knee 
** GRF is posterior to axis of rotation of knee joint as knee is moving into flexion.
** Creates an external flexion moment.
** Counteracted by an internal extensor (quadricep musculature) moment.


* GRF is posterior to axis of rotation of hip joint as hip is moving into extension.
* Hip 
* Creates a posterior pelvic tilt.
** GRF is posterior to axis of rotation of hip joint as hip is moving into extension.  
* Utilise flexor musculature (iliopsoas) to counteract this moment.
** Creates a posterior pelvic tilt.  
** Utilise flexor musculature (iliopsoas) to counteract this moment.  


== Internal Torque Peaks ==
== Internal Torque Peaks ==

Revision as of 14:09, 3 September 2022

Original Editor - Rachel Celentano based on the course by Alexandra Kopelovich

Top Contributors - Rachel Celentano, Wanda van Niekerk and Jess Bell  

Introduction[edit | edit source]

Merriam-Webster dictionary defines gait as “a manner of walking or moving on foot."[1] It involves the interaction between the nervous, musculoskeletal, and cardiorespiratory systems and is heavily impacted by human age, personality, mood, and sociocultural factors.[2] Normal gait function is determined by the optimal operation of the following: “locomotor function (for initiating and sustaining rhythmic gait), balance, postural reflexes, sensory function and sensorimotor integration, motor control, the musculoskeletal apparatus and cardiopulmonary functions."[2]

Stance Versus Swing Phase[edit | edit source]

The normal forward stride consists of two phases: the stance phase and the swing phase.[3]

  • The stance phase occupies 0-60% of the gait cycle, during which one leg and foot are bearing most or all of the body weight.
  • The swing phase occupies 60-100% (total 40%) of the gait cycle, during which the foot is not touching the walking surface and the bodyweight is borne by the other leg and foot.[4]
  • In a complete two-step cycle, both feet are in contact with the floor at the same time for about 25% of the time. This part of the cycle is called the double-support phase.
  • Gait cycle phases: the stance phase and the swing phase involves a combination of open and close chain activities.[5]

Phases of Gait[edit | edit source]

There are 8 phases of gait which are listed as follows:[4][6]

  1. Initial Contact
  2. Foot Flat
  3. Midstance
  4. Heel Off
  5. Toe Off
  6. Initial Swing
  7. Mid Swing
  8. Late Swing [7]

See below for a diagram of the gait cycle

The video below shares a 90-second description of the basics of the gait cycle:

[8]

Range of Motion Involved in Gait Phases[edit | edit source]

Initial contact (Heel strike)

  • 0% of gait cycle
  • Function:
    • To establish contact with surface and initiate weight acceptance[9]
Range of Motion (ROM) at Initial Contact
Body part ROM requirements
Ankle 0° (neutral position)
Knee 0° (full extension)
Hip average 20° of flexion

Foot flat

  • 8-10% of gait cycle
  • Function:
    • weight acceptance and shock absorption
Range of Motion (ROM) Requirements during Foot Flat
Body part ROM requirements
Ankle 0-5° plantarflexion
Knee 15° of flexion
Hip 15° of flexion (hip is moving into extension)

Midstance

  • The greater trochanter is vertically above the mid-point of the foot
  • Function:
    • Single limb support and stability
Range of Motion (ROM) Requirements during Midstance
Body part ROM requirements
Ankle 5° of dorsiflexion
Knee 5° of flexion
Hip 0° of flexion (neutral position)

Heel off

  • 30-40% of gait cycle
  • Function
    • Single limb support, stability, and propulsion
Range of Motion (ROM) Requirements during Heel Off
Body part ROM requirements
Ankle 0° (neutral position)
Knee 0° of flexion (complete extension)
Hip 10-20° of hyperextension

Toe off

  • 60% of gait cycle (final phase of stance)
  • Function
    • Final burst of propulsion to propel the body forward
Range of Motion Requirements During Toe Off
Body part ROM requirements
Ankle 20° of plantarflexion
Knee 30° of flexion
Hip 10-20° of hyperextension

Early swing

  • 60-75% of gait cycle (beginning of swing phase)
  • Toe off until the swinging limb is even with the stance limb
  • Function
    • To propel the lower extremity forward and shorten the stance limb
Range of Motion Requirements during Early Swing
Body part ROM requirements
Ankle 10° of plantarflexion
Knee 60° of flexion
Hip moves into 20° of flexion

Mid swing

  • 75-85% of gait cycle
  • Swinging limb is opposite the stance limb
  • Function
    • To clear lower extremity from the ground in order to advance into initial contact
Range of Motion (ROM) Requirements during Mid Swing
Body part ROM requirements
Ankle 0° (neutral position)
Knee moves into 30° of flexion
Hip 30° of flexion (hip is moving into extension)

Late swing

  • 85-100% of gait cycle
  • Tibia vertical to initial contact
  • Function
    • To decelerate lower extremity to establish contact with the ground
Range of Motion (ROM) Requirements during Late Swing
Body part ROM requirements
Ankle 0° (neutral position)
Knee 0° (complete extension)
Hip 30° of flexion

The following video describes the range of motion requirements involved in the different gait phases:

Range of Motion during Gait [10]

Maximum Values[edit | edit source]

Maximum range of motion values is the minimum prerequisites for a normal gait pattern.[11]

Maximum Range of Motion at Lower Extremity Joints during Gait Cycle
Body part Maximum ROM values
Hip 20° of extension; 20° of flexion
Knee 0° (complete extension); 60° of flexion
Ankle 5° of dorsiflexion; 20° of plantarflexion

Gait Kinetics[edit | edit source]

Definitions

  • Ground reaction force (GRF)
    • creates an external plantarflexion or dorsiflexion torque
    • If GRF anterior to joint axis - causes anterior motion of the proximal segment
    • If GRF is posterior to joint axis - causes posterior motion of the proximal segment
  • Lower extremity gait musculature - creates an internal torque.
  • Centre of pressure - point of application of pressure to the foot segment

Initial contact

  • Ankle
    • At initial contact - lateral calcaneus strikes the ground first.
    • Point of application of GRF is slightly posterior to the axis of rotation of the foot and ankle joint - creates a plantarflexion moment at the ankle.
    • Utilise dorsiflexors to oppose plantarflexor torque - internal torque controlled by tibialis anterior, extensor digitorum longus and extensor hallucis.
  • Knee
    • At initial contact - GRF is anterior to the knee joint creating anterior rotation of the femur.
    • GRF wants to move into extension.
    • Utilise flexor musculature - hamstrings - in order to control progression.
  • Hip
    • GRF is anterior to hip joint - creating an external torque (anterior rotation) at the pelvis.
    • Utilise extensor musculature - gluteal musculature - to oppose/control the progression or external torque.

Foot flat

  • Ankle
    • Centre of pressure remains at the posterior calcaneus - GRF remains posterior to the ankle.
    • Utilise dorsiflexors to prevent plantarflexion from occurring at the ankle.
  • Hip
    • Centre of pressure and GRF remains the same - anterior to the axis of rotation.
    • Anterior pelvic tilt creates a flexion torque.
    • Utilise extensor musculature to control this torque.
  • Knee
    • Range of motion moves from 0-15°
    • GRF posterior to the axis of rotation of the knee joint - creates a flexion torque.
    • Utilise extensor musculature to control knee from moving into flexion.

Mid-stance

  • Ankle
    • GRF creates a clockwise torque of the proximal segment (on top of distal segment) - causing a dorsiflexion moment at the talocrural joint.
    • Utilise plantarflexors to oppose the external torque.
  • Knee
    • GRF creates an anterior (clockwise) torque of proximal segment (on top of distal segment) - wants to move into extension by femur moving anteriorly on tibia.
    • Utilise flexors to oppose this torque - activates hamstrings.
  • Hip
    • GRF is posterior to the axis of rotation - wants pelvis to move into a posterior pelvic tilt (extension).
    • Utilise flexors to oppose extension torque.

Heel off

  • Ankle
    • GRF is anterior to the axis of rotation of ankle joint - wants tibia to flex on talus.
    • Creates external dorsiflexion moment at talocrural joint.
    • Utilise plantarflexors to oppose this moment.
  • Knee
    • GRF is anterior to knee joint - pulls femur into extension, creating an external extensor torque.
    • Counteracted by internal flexor torque.
  • Hip
    • GRF is posterior to hip joint - creates an external extensor moment.
    • Counteracted by internal flexor moment.

Toe off

  • Ankle
    • Centre of pressure/GRF stay anterior to axis of rotation of ankle joint.
    • Creates an external dorsiflexion moment.
    • Counteracted by internal plantarflexion moment.
  • Knee
    • GRF is posterior to axis of rotation of knee joint as knee is moving into flexion.
    • Creates an external flexion moment.
    • Counteracted by an internal extensor (quadricep musculature) moment.
  • Hip
    • GRF is posterior to axis of rotation of hip joint as hip is moving into extension.
    • Creates a posterior pelvic tilt.
    • Utilise flexor musculature (iliopsoas) to counteract this moment.

Internal Torque Peaks[edit | edit source]

Hip:

  • Foot flat - extensor torque
  • Heel off - flexor torque

Knee:

  • Initial contact - flexor torque (hamstring musculature active)
  • Foot flat - extensor torque (quadriceps musculature active)
  • Heel off - flexor torque (hamstring musculature active)

Ankle:

  • Initial contact/Foot flat - dorsiflexion torque
  • Heel off - plantarflexion torque (gastrocnemius/soleus active)

References[edit | edit source]

  1. Merriam-Webster. Gait. Available from: https://www.merriam-webster.com/dictionary/gait [last accessed 23.6.2022]
  2. 2.0 2.1 Pirker W, Katzenschlager R. Gait disorders in adults and the elderly. Wiener Klinische Wochenschrift. 2017 Feb 1;129(3-4):81-95. Available from:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5318488/ [last accessed 25.6.2022]
  3. Cicirelli G, Impedovo D, Dentamaro V, Marani R, Pirlo G, D’Orazio TR. Human gait analysis in neurodegenerative diseases: a review. IEEE Journal of Biomedical and Health Informatics. 2021 Jun 28;26(1):229-42.
  4. 4.0 4.1 Loudon J, et al. The clinical orthopedic assessment guide. 2nd ed. Kansas: Human Kinetics, 2008. p.395-408.
  5. Shultz SJ et al. Examination of musculoskeletal injuries. 2nd ed, North Carolina: Human Kinetics, 2005. p55-60.
  6. Stöckel T, Jacksteit R, Behrens M, Skripitz R, Bader R, Mau-Moeller A. The mental representation of the human gait in young and older adults. Frontiers in psychology. 2015 Jul 14;6:943.
  7. Berger W, et al. Corrective reactions to stumbling in man: neuronal co-ordination of bilateral leg activity during gait. J Physiol 1984;357: 109-125. [last accessed 19.7.2022]
  8. Nicole Comninellis. The Gait Cycle Animation. Available from: https://www.youtube.com/watch?time_continue=35&v=DP5-um6SvQI [last accessed 19.7.2022]
  9. Webster JB, Darter BJ. Principles of normal and pathologic gait. InAtlas of Orthoses and Assistive Devices 2019 Jan 1 (pp. 49-62). Elsevier.
  10. Alexandra Kopelovich. Gait Range of Motion. Available from: https://www.youtube.com/watch?v=5Z6shSu96CM [last accessed 19.7.2022]
  11. Kopelovich, A. Joint Range of Motion during Gait. Course. Plus. 2022