Upper Limb Management in C4 and C5 Spinal Cord Injury: Difference between revisions

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=== Limb Protection ===
=== Limb Protection ===
Poor scapula stability deficit in ''serratus anterior'' (normal innervation C5-C7) means that this muscle cannot resist against the tension of the ''rhomboids'' antagonist muscles (normal innervation C4-C5) which results in both a reduction in scapula lateral rotation and in scapulothoracic instability. This could decrease the shoulder’s full active range of motion [<nowiki/>[[/www.ncbi.nlm.nih.gov/pmc/articles/PMC4417243/#CR41|41]]].<ref>Mateo S, Roby-Brami A, Reilly KT, Rossetti Y, Collet C, Rode G. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4417243/pdf/12984_2014_Article_715.pdf Upper limb kinematics after cervical spinal cord injury: a review.] J Neuroeng Rehabil. 2015 Jan 30;12:9.</ref>
Poor scapula stability deficit in ''serratus anterior'' (normal innervation C5-C7) means that this muscle cannot resist against the tension of the ''rhomboids'' antagonist muscles (normal innervation C4-C5) which results in both a reduction in scapula lateral rotation and in scapulothoracic instability. This could decrease the shoulder’s full active range of motion [<nowiki/>.<ref>Mateo S, Roby-Brami A, Reilly KT, Rossetti Y, Collet C, Rode G. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4417243/pdf/12984_2014_Article_715.pdf Upper limb kinematics after cervical spinal cord injury: a review.] J Neuroeng Rehabil. 2015 Jan 30;12:9.</ref>


neck pain, trapezius muscle pain since this muscle assists with both neck and shoulder girdle movement. Trapezius muscle can be over-used since it may be the only functioning shoulder muscle providing scapular elevation and retraction. shoulder protractors (serrates anterior, pectoralis major and minor) and depressors (Latissimus dorsi muscle. Pectoralis minor muscle. Trapezius muscle. Serratus anterior muscle) do not provide sufficient opposition to the trapezius muscle to prevent its shortening:<ref>Waring WP, Maynard FM. [https://www.nature.com/articles/sc19915.pdf?origin=ppub Shoulder pain in acute traumatic quadriplegia.] Paraplegia. 1991 Jan;29(1):37-42. </ref>partial denervation of the ''pectoralis major'' (normal innervation C5-T1) results in decreased strength of the primary humeral adductor  
neck pain, trapezius muscle pain since this muscle assists with both neck and shoulder girdle movement. Trapezius muscle can be over-used since it may be the only functioning shoulder muscle providing scapular elevation and retraction. shoulder protractors (serrates anterior, pectoralis major and minor) and depressors (Latissimus dorsi muscle. Pectoralis minor muscle. Trapezius muscle. Serratus anterior muscle) do not provide sufficient opposition to the trapezius muscle to prevent its shortening:<ref>Waring WP, Maynard FM. [https://www.nature.com/articles/sc19915.pdf?origin=ppub Shoulder pain in acute traumatic quadriplegia.] Paraplegia. 1991 Jan;29(1):37-42. </ref>partial denervation of the ''pectoralis major'' (normal innervation C5-T1) results in decreased strength of the primary humeral adductor  

Revision as of 16:04, 20 November 2022

This article or area is currently under construction and may only be partially complete. Please come back soon to see the finished work! (20.11.2022)

Original Editor - Ewa Jaraczewska based on the course by Wendy Oelofse

Top Contributors - Ewa Jaraczewska, Jess Bell, Kim Jackson and Rishika Babburu  

Introduction[edit | edit source]

Based on the patients' survey results, restoring hand function is one of the most important goals for a person with tetraplegia. [1] Upper extremity function in person with a high level spinal cord injury can improve quality of life and it may have a direct psychological impact on maintaining social relationships of a person with SCI.[2] Optimal upper limb functioning (UL) depends on neurological deficits. The intervention may need to focus on preventing complications and creating ideal conditions for the reconstructive phase of upper limb rehabilitation. [3] Upper limb pain is a common complication which can delay progress, and it was found in 59 percent of individuals with tetraplegia. [3] Therapy must be tailored to every individual with a spinal cord injury, and patient feedback is essential to assure the usefulness of specific interventions. This article will discuss various rehabilitative strategies for upper limb management in C4 and C5 spinal cord injury, performed by a multidisciplinary spinal cord injury team.

"Tetraplegia: This term refers to impairment or loss of motor and/or sensory function in the cervical segments of the spinal cord due to damage of neural elements within the spinal canal. Tetraplegia results in impairment of function in the arms as well as typically in the trunk, legs, and pelvic organs (i.e., including the four extremities). It does not include brachial plexus lesions or injury to peripheral nerves outside the neural canal."[4]

C4 Tetraplegia[edit | edit source]

  1. No active movement of upper limb muscles
  2. Unable to use hand
  3. High risk of shoulder subluxation due to lack of innervation of the shoulder girdle


Goals for UL management:[5]

  • Prevent and control the development of deformities
  • Protect insensate areas from injury
  • Prevent or reduce oedema
  • Maintain a supple hand for human contact
  • Protect the limb from irreversible changes
  • Preserve the limb for future treatment paradigms

Prevention[edit | edit source]

Prevention of Development and Management of UL Deformities[edit | edit source]

Shoulder subluxation:

  • Avoid extreme positions at the shoulder, which can lead to a shoulder injury. Example: extreme internal rotation, forward flexion and abduction can cause shoulder impingement.[3]
  • Maintain proper alignment of the glenohumeral joint while sitting in the wheelchair during functional tasks and weight-bearing activities.
  • Educate all caregivers on proper UL handling during transfers and all other daily activities.


Hand and wrist overstretched in extension or flexion:

  • Avoid extreme positions of the wrist, especially full wrist extension. Weight-bearing through an extended wrist and flat hand can cause nerve injury as it compresses the median nerve in the carpal canal. [3]
  • Use a closed-fist hand position and neutral wrist while transferring between surfaces, but watch for wrist instability during these tasks.
  • Avoid extended periods of volar flexion

Prevention or Reduction of Oedema[edit | edit source]

Limited muscle pump activity due to muscle paralysis after a spinal cord injury causes a reduction in venous and lymphatic return, leading to oedema. Chronic oedema can restrict the upper limb range of motion and decrease the patient's ability to use the hand for functional tasks when able.

Interventions [6][edit | edit source]

There is no consensus on how to best manage the UL oedema:

  • Elevate and position properly: UL elevation on the pillow when a patient lies supine in bed, UL support in alignment to prevent shoulder subluxation and pain resulting from it.
  • Avoid excessive wrist flexion, which can obstruct the venous and lymphatic return
  • Use splinting to facilitate conditions for adequate venous return
  • Maintain range of motion in joints, tendons and ligaments of wrist and fingers
  • Apply prolonged stretch using orthosis in case of hand spasticity to prevent contractures
  • Use compression gloves (tenodesis position should be maintained and compression applied on the palmar side of the hand) or wrap each finger individually with Coban or Danamull Haft

Protection of Insensate Areas[edit | edit source]

Pressure ulcers can occur due to multiple factors that include :

  • Long-sustained local pressure (elbows supported on the arm troughs or wheelchair tray)
  • Short periods of high pressure
  • Shearing forces
  • Friction
  • Moisture (hand contracture)

Common location of UL pressure ulcers:

  • Over a bony prominence
  • Medial surface of the elbow
  • Scapula
Interventions:[edit | edit source]
  • Proper positioning in bed and the wheelchair
  • UL protection from friction and shearing forces during wheelchair pressure relief using reclining or tilting in space
  • Proper hand hygiene
  • Skin inspection performed twice a day[7]

Limb Protection[edit | edit source]

Maintaining an adequate range of motion in all UL joints:

  • Positioning in bed and the wheelchair
  • Shoulder pain prevention or shoulder pain management due to impingement syndrome, capsulitis, osteoarthritis, recurrent dislocations, rotator cuff tear, bicipital tendinitis, and myofascial pain syndrome. [3]
  • Early and aggressive acute pain management as a result of acute musculoskeletal injuries to prevent the development of chronic pain.[3]

Support for Function[edit | edit source]

Preserve range of motion and mobility for future treatment paradigms

C5 Tetraplegia[edit | edit source]

  1. Upper limb muscle innervation: deltoid, biceps, brachial, brachioradialis
  2. Lack of elbow extension
  3. No wrist extension and no active movement of fingers or thumb
  4. Supinated forearm
  5. Wrist extension achieved through orthosis
  6. No tenodesis grip

Goals:[5]

  • Prevent and control the development of deformities
  • Protect insensate areas from injury
  • Prevent or reduce oedema
  • Prepare the limb for function (feeding)

Prevention and Control of the Development of Deformities[edit | edit source]

With C5 level of a spinal cord injury, the innervation of shoulder and elbow flexors is preserved. Active elbow extension against gravity is impaired and upper limb is positioned in shoulder abduction, elbow flexion, forearm supinated, and wrist in extension

  • work with individuals with tetraplegia should educate individuals and their caregivers to constantly monitor ROM limitations and their impact on function[8]
  • stretching may not improve ROM limitations so positional strategies and activity modifications should be emphasized during therapy sessions.[9]

Limb Protection[edit | edit source]

Poor scapula stability deficit in serratus anterior (normal innervation C5-C7) means that this muscle cannot resist against the tension of the rhomboids antagonist muscles (normal innervation C4-C5) which results in both a reduction in scapula lateral rotation and in scapulothoracic instability. This could decrease the shoulder’s full active range of motion [.[10]

neck pain, trapezius muscle pain since this muscle assists with both neck and shoulder girdle movement. Trapezius muscle can be over-used since it may be the only functioning shoulder muscle providing scapular elevation and retraction. shoulder protractors (serrates anterior, pectoralis major and minor) and depressors (Latissimus dorsi muscle. Pectoralis minor muscle. Trapezius muscle. Serratus anterior muscle) do not provide sufficient opposition to the trapezius muscle to prevent its shortening:[11]partial denervation of the pectoralis major (normal innervation C5-T1) results in decreased strength of the primary humeral adductor

Preparation for function[edit | edit source]

Adaptive Equipment trials: universal cuff, Mobile Arm Support (MAS)

Upper Limb Splinting[edit | edit source]

Goals:

  • To reduce pain
  • To slow the degradation process
  • To recover joint space
  • Improve finger performance and hand functioning by increasing grip and pinch strength.[12]
General Guidelines [13][edit | edit source]
  • Patient must participate in decision-making and treatment plan
  • Patient must demonstrate health literacy and condition understanding
  • Splint must serve functional goals
  • Splint choice depends on the cosmetic preferences of the patient
  • Patient must tolerate splint and perceives comfort while wearing it
  • Patient and caregiver must accept splint and follow-through with wearing schedule and maintenance
  • Clinician must perform an ongoing review of current evidence for splinting in spinal cord injury
Protocols[edit | edit source]

Limited standard protocols exist across the continuum of care.

Protocols examples from the literature:[13]

  1. Goal: Optimal muscle shortening for tenodesis.
    • Splints issued immediately after injury and worn for 23 hours daily until the onset of rehabilitation with breaks only for the range of motion exercises
  2. Goal: Optimal wrist and finger positioning.
    • Resting hand splints for night time/rest when wrist and digit strength is 0–3/5
    • Futuro wrist splints for daytime hand use for individuals with elbow flexion against gravity but weak wrists and hands
    • Hand-based or thumb splints and/or taping of the digits at night/rest for individuals with wrist extension against gravity but no digit movement.
Splints[edit | edit source]

Resting hand splint:[13]

  • frequently used in C4 and C5 SCI
  • custom-made preferred over prefabricated
  • Clinical Practice Guidelines: mostly night time use when wrist and digit strength is 0-3/5
  • typical position the wrist in 10–40° extension (30° most frequent). Digits are positioned in some flexion: MCP at 0–90 (70–90 most typical); proximal interphalangeal (PIP) at 0–75 (10–30 most typical); distal interphalangeal (DIP) at 0–70 (10–20 most typical). The thumb is typically positioned in opposition.

Wrist splint:

  • Prefabricated wrist splints are preferred by 29 of 48 clinicians who regularly prescribe wrist splints to be worn during the day to increase functional activity participation. Dorsal varieties and a U-Cuff are mentioned as favourite options. The primary wrist splint goal is to prevent overstretching of the wrist extensors, and adding a universal cuff provides a stable base for ADLs.
  • Clinical Practice Guidelines: for daytime use for individuals with elbow flexion 3-5/5, and wrist and hand 0-3/5
  • most commonly used in C5 (73%) and C4 (40%)

Long opponens

  • Long-opponens splint use occurs less frequently than other splints, with custom-fabricated splints preferred by 16 of 18 clinicians who report regular long-opponens use. Clinicians state these splints are recommended for functional activities but also note potential interference with power wheelchair operation.
  • 13% (C5), 6% (C4)

Short opponens

  • Therapists who report regular short opponens use prefer fabricating custom splints almost exclusively (41 of 43 respondents). These splints facilitate tenodesis by opposing the thumb and preventing thumb overstretching during functional tasks.
  • C6, C7-8
  • to facilitate tenodesis for individuals with wrist extension 3-5/5 and digitise 0-2/5

Metacarpal-Phalangeal (MCP) blocking splint

  • All 24 clinicians reported regular MP blocking splints using custom splints to prevent MP hyperextension during functional hand tasks.
  • C7-8
  • if intrinsics hand weakness is present and MCP hyperextension occurs during functional tasks

Other

  • In addition to the five common splints listed in the survey, therapists describe commonly using the following additional devices: elbow extension splints, elbow pillow splints, anti-spasticity splints, palm splints, intrinsic plus or minus splints, tone and positioning splints, tenodesis splints or orthotics, and finger flexion gloves or mitts.

Wheelchair Mobility[edit | edit source]

powered mobility should help protect the upper limb by reducing repetitive forceful activity and should be considered before the patient complains of upper limb pain. Using powered mobility may lead to weight gain and upper limb deconditioning.

A power wheelchair can be recommended for:

  • community mobility (C6 SCI)
  • high-risk patients:
    • person with a prior injury to the upper limb
    • obese person
    • elderly
    • person living in a challenging environment (hills, uneven or rough terrain)

Provide manual wheelchair users with SCI, a high-strength, fully customizable manual wheelchair made of the lightest possible material.

Adjust the rear axle as far forward as possible without compromising the user's stability. A more forward axle position decreases rolling resistance and therefore increases propulsion efficiency.[3]

Promote an appropriate seated posture and stabilization relative to balance and stability needs. C4 and higher neurologic levels provide full support of the forearm and hand to decrease subluxation or dislocation[3]

Wheelchair Modifications/Adaptive Equipment[edit | edit source]

  • Wrist extension splint with wheelchair glove over it

Upper Limb Adaptive Equipment/Assistive Technologies[edit | edit source]

Universal cuff (C5)

Mobile Arm Support(C5)[14]The key physical prerequisite for successful use of the MAS was at least minimal strength of the deltoid and biceps muscles; 92% of respondents indicated that they would fit an MAS for motivated patients having very weak (< 2/5) biceps and deltoid muscles. According to the therapists, 100% (n = 30) of their clients were able to perform at least 1 activity using a MAS that they were unable to perform without the device. These activities included (in descending frequency) eating, page turning, driving a power wheelchair, brushing teeth, keyboarding, writing, name signing, drawing, painting, scratching nose, playing board games, accessing electronic devices, drinking, and grooming. Equipment design limitations included increased wheelchair width and problems managing the arms while reclining.[15]

Multidisciplinary Management[edit | edit source]

Upper limb management in C5 and C6 tetraplegia must occur 24 hours/7 days a week. Everyone in the multidisciplinary team is responsible, including nursing staff, physicians, physical, occupational and speech-language pathologists, family and all other caregivers.

Education

  • Tailoring therapeutic education consists of adapting the intervention to patients' needs with the expectation that this individualization will improve the results of the intervention[16]
  • Education of health-care providers and persons with SCI about the risk of upper limb pain and injury
  • Education on reduction of the frequency of repetitive upper limb tasks:[3]
    • decreasing the number of transfers needed each day
    • altering the use of a manual wheelchair with a power wheelchair or switching to a power wheelchair as appropriate
    • decreasing the frequency of the propulsive stroke during wheelchair propulsion
    • Consider alternative techniques for activities when upper limb pain or injury is present.

Mandatory periodic reassessment of the patient's function, ergonomics, and equipment, including:

  • Changes in patient's medical status
  • Acquisition of new medical problems (heart disease)
  • Changes in weight, muscle mass, pain level
  • Ageing effect on patient's functional status and mobility

ICF-Based Case Study[edit | edit source]

Resources[edit | edit source]

References[edit | edit source]

  1. Van Tuijl JH, Janssen-Potten YJ, Seelen HA. Evaluation of upper extremity motor function tests in tetraplegics. Spinal Cord. 2002 Feb;40(2):51-64.
  2. Deep V, Vijay V, Malik L. Relationship between capabilities of upper extremity and quality of life in chronic spinal cord injury. International Journal of Multidisciplinary Educational Research, 2021;10: 9(3)
  3. 3.0 3.1 3.2 3.3 3.4 3.5 3.6 3.7 3.8 Paralyzed Veterans of America Consortium for Spinal Cord Medicine. Preservation of upper limb function following spinal cord injury: a clinical practice guideline for health-care professionals. J Spinal Cord Med. 2005;28(5):434-70.
  4. Rupp R, Biering-Sørensen F, Burns SP, Graves DE, Guest J, Jones L, Read MS, Rodriguez GM, Schuld C, Tansey-Md KE, Walden K. International standards for neurological classification of spinal cord injury: revised 2019. Topics in spinal cord injury rehabilitation. 2021;27(2):1-22.
  5. 5.0 5.1 Oelofse W. Upper Limb Management in Upper Tetraplegia - Occupational Therapy Course. Plus 2022
  6. Dunn J, Wangdell J. Improving upper limb function. Rehabilitation in Spinal Cord Injuries. 2020 Feb 1:372.
  7. Braden BJ, Blanchard S. Risk assessment in pressure ulcer prevention. Krasner, DL, Rodeheaver, GT, Sibbeald, RG (Eds.) Chronic Wound Care: A Clinical Source Book for Healthcare Professionals (. 2001:641-51.
  8. Frye SK, Geigle PR, York HS, Sweatman WM. Functional passive range of motion of individuals with chronic cervical spinal cord injury. J Spinal Cord Med. 2020 Mar;43(2):257-263.
  9. Harvey LA, Katalinic OM, Herbert RD, Moseley AM, Lannin NA, Schurr K. Stretch for the treatment and prevention of contracture: an abridged republication of a Cochrane Systematic Review. J Physiother. 2017 Apr;63(2):67-75.
  10. Mateo S, Roby-Brami A, Reilly KT, Rossetti Y, Collet C, Rode G. Upper limb kinematics after cervical spinal cord injury: a review. J Neuroeng Rehabil. 2015 Jan 30;12:9.
  11. Waring WP, Maynard FM. Shoulder pain in acute traumatic quadriplegia. Paraplegia. 1991 Jan;29(1):37-42.
  12. Kaunnil A, Sansri V, Thongchoomsin S, Permpoonputtana K, Stanley M, Trevittaya P, Thawisuk C, Thichanpiang P. Bridging the Gap between Clinical Service and Academic Education of Hand-Splinting Practice: Perspectives and Experiences of Thai Occupational Therapists. Int J Environ Res Public Health. 2022 Jul 24;19(15):8995.
  13. 13.0 13.1 13.2 Frye SK, Geigle PR. Current U.S. splinting practices for individuals with cervical spinal cord injury. Spinal Cord Ser Cases. 2020 Jun 17;6(1):49.
  14. Readioff R, Siddiqui ZK, Stewart C, Fulbrook L, O'Connor RJ, Chadwick EK. Use and evaluation of assistive technologies for upper limb function in tetraplegia. J Spinal Cord Med. 2022 Nov;45(6):809-820.
  15. Atkins MS, Baumgarten JM, Yasuda YL, Adkins R, Waters RL, Leung P, Requejo P. Mobile arm supports: evidence-based benefits and criteria for use. The journal of spinal cord medicine. 2008 Jan 1;31(4):388-93.
  16. Ricci L, Villegente J, Loyal D, Ayav C, Kivits J, Rat AC. Tailored patient therapeutic, educational interventions: A patient-centred communication model. Health Expect. 2022 Feb;25(1):276-289.