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Physical Medicine and Rehabilitation›Condition·Updated Jul 11, 2026·v1

Spinal Cord Injury Rehabilitation

SCI rehabilitation is a multidisciplinary, ICF-based process that integrates neurological classification, functional assessment, and tailored therapy to maximize recovery and prevent complications. Key clinical tools: ASIA exam, FIM transfer score for pressure injury risk, PHQ-9 for depression, and SCIM III for functional outcomes. Avoid gait training in non-ambulatory patients. Early neuromodulation (FES, tSCS, AIH) and task-specific training are essential.

Moderate Evidence128 references·2,786 words·12 min read·v1
spinal cord injuryrehabilitationICFASIApressure injuryneurogenic bladderfunctional electrical stimulationgait trainingphysiatry

Quick Reference

RxDrug of choicePregabalin 150-300 mg/day (or gabapentin) for neuropathic pain; NFX88 2.1 g/day as add-on for refractory pain. Baclofen up to 80 mg/day for spasticity.
AltAlternativesTizanidine 36 mg/day, intrathecal baclofen, botulinum toxin for spasticity. Mirabegron 50 mg/day for neurogenic detrusor overactivity.
⊘AvoidNon-dihydropyridine CCBs (diltiazem, verapamil) worsen autonomic dysreflexia. Lithium for neuroregeneration is ineffective. Avoid NSAIDs for neuropathic pain.
DxTest of choiceISNCSCI exam (ASIA) for neurological classification. FIM motor subscale (bed/chair transfer score) for pressure injury risk. PHQ-9 for depression screening.
ScKey scoreAIS grade (A-E) for severity; FIM bed/chair transfer score <4 for pressure injury risk; SCIM III total score <40 predicts institutional discharge; PHQ-9 ≥11 for depression.
→When to referRefer to physiatry for rehabilitation management; to urology for neurogenic bladder; to wound care for pressure ulcers; to vocational rehabilitation for return to work; to psychology for adjustment and depression.
SCI rehabilitation is a multidisciplinary, ICF-based process that prioritizes function and participation. Key interventions: early mobility, pressure injury prevention (FIM transfer score-driven), task-specific training, neuromodulation (FES, tSCS, AIH), and comprehensive complication surveillance. Avoid gait training in non-ambulatory patients. Use PHQ-9 to rule out depression and FIM transfer score to predict pressure injury.
Spinal cord injury (SCI) rehabilitation is a comprehensive, interdisciplinary process applying the ICF biopsychosocial model to restore function and participation after SCI. It uses the ASIA Impairment Scale (AIS) for grading and targets impairment, activity limitation, and participation restriction through tailored interventions.

Overview and Recommendations

Background

  • •Spinal cord injury (SCI) rehabilitation is a life-changing, interdisciplinary process that applies the WHO International Classification of Functioning, Disability and Health (ICF) model to restore function and participation. It predominantly affects young men (mean age 44 years, 76% male), with a global incidence that is rising as survival improves. The paradigm shift from a disease-cure approach to the biopsychosocial model has redefined rehabilitation goals: impairment, activity limitation, and participation restriction are addressed simultaneously. The ASIA Impairment Scale (AIS) classifies completeness from A (complete) to E (normal), and together with the neurological level of injury (cervical, thoracic, lumbar) it is the primary predictor of functional recovery. Rehabilitation is organized into overlapping phases: acute (stabilization, prevention of secondary complications), inpatient rehabilitation (intensive, goal-oriented therapy), and community reintegration (transition to home and work).
  • •The ICF framework distinguishes three domains: impairment (loss of body function or structure, e.g., absent voluntary movement below C5), activity limitation (difficulty executing a task, e.g., inability to transfer from bed to chair), and participation restriction (problems in life situations, e.g., unemployment). The goal of rehabilitation is to mitigate each level through targeted interventions, from neuromodulation to aquatic therapy to supported employment. Outcome measures such as the Spinal Cord Independence Measure (SCIM III) and the Functional Independence Measure (FIM) are grounded in this framework to ensure person-centered care.
  • •Neuroplasticity is the substrate for recovery. After SCI, cortical motor maps remain active: in patients with complete injuries, functional near-infrared spectroscopy shows preserved foot motor cortex activity during attempted foot movements. Moreover, multisensory illusions (e.g., rubber hand illusion) can elicit tactile sensations in insentient fingers even years after deafferentation, demonstrating that the brain can update its body representation. Spinal central pattern generators and spared sublesional circuits can be modulated by afferent input, which rehabilitation exploits through activity-dependent stimulation, task-specific training, and neuromodulation.
  • •The landmark trial by Esclarín-Ruz et al. (2014) established robotic locomotor training plus overground therapy as superior to conventional overground training for walking recovery after incomplete SCI, catalyzing the adoption of technology-assisted therapy. The field has also seen advances in pharmacological neuromodulation (e.g., acute intermittent hypoxia improving hand dexterity) and neuromodulation devices (transcutaneous spinal cord stimulation, functional electrical stimulation). However, no single intervention has reversed the fundamental neurological deficit; the greatest gains have come from managing complications, setting realistic expectations, and integrating evidence-based therapies into a coordinated care plan.

Evaluation

  • •Suspect SCI in any patient with acute motor and sensory loss after trauma, or with progressive weakness, pain, and autonomic dysfunction in non-traumatic causes (tumors, infections, demyelination). The initial clinical presentation depends on level and completeness: complete lesions cause flaccid paralysis during spinal shock (1-6 weeks), evolving to spasticity, hyperreflexia, and upper motor neuron signs. Incomplete lesions produce variable patterns, central cord syndrome (upper limb > lower limb weakness), Brown-Sequard syndrome (ipsilateral motor loss, contralateral pain/temperature loss), anterior cord syndrome (loss of motor and pain/temperature, preserved proprioception).
  • •Examine systematically using the ASIA International Standards (ISNCSCI) within 72 hours of injury and again at rehabilitation admission. This yields the neurological level of injury (NLI) and AIS grade (A-E). The motor examination tests 10 key myotomes bilaterally (total motor score 0-100). The sensory examination maps light touch and pinprick to 28 dermatomes. Reflexes: bulbocavernosus (S2-S4) and anal wink (S5) are early indicators of spinal shock resolution; presence within 24 hours predicts better prognosis. Lower extremity reflexes become hyperactive after shock resolves. Autonomic examination: heart rate, blood pressure, sweating patterns; orthostatic hypotension is common in lesions above T6.
  • •Order functional assessment within 72 hours of admission. The FIM motor subscale is the most widely used measure of disability, with the bed/chair transfer score (1-7) being a particularly powerful predictor. A score of 1 (total assist) identifies patients at high risk for developing pressure injuries during inpatient rehabilitation (sensitivity 97%, AUC 0.74). The SCIM III is a condition-specific alternative assessing self-care, respiration/sphincter management, and mobility. For cervical SCI, administer the Capabilities of the Upper Extremity Test (CUE-T) within 2 weeks; a cutoff of 37 points predicts independence in self-care.
  • •Assess risk factors for secondary complications: pressure injury risk is best predicted by the FIM bed/chair transfer score <4. Use the SCI-PreSORS instrument (recursive partitioning model) which outperforms both the SCIPUS and Braden scales. Screen for depression with the PHQ-9 (cutoff ≥11 gives sensitivity 1.00, specificity 0.84). Assess for sleep-disordered breathing with overnight oximetry or polygraphy. Obtain a fasting lipid panel, glucose, and waist circumference on admission and at discharge to screen for cardiometabolic syndrome, which is present in 39.4% of patients at discharge.
  • •Diagnostic criteria for SCI are based on the ISNCSCI exam. The AIS is the gold standard for grading completeness. Imaging (MRI) is essential to identify the lesion type, edema, hemorrhage, and to rule out ongoing compression. In the acute phase, monitor for autonomic dysreflexia (sudden hypertension, headache, bradycardia in lesions above T6 triggered by noxious stimuli below the level) and respiratory failure (FVC < 15 mL/kg or a drop > 20% from baseline). Also consider deep vein thrombosis (high risk in first 3 months) and pulmonary embolism.
  • •Prognostic factors: AIS grade (A/B worse), NLI (tetraplegia worse than paraplegia), age (≥74 years predicts facility discharge), comorbidity burden (MSCI), pre-existing pressure ulcer (30.2% risk of new ulcer), and coping style (social reliance predicts worse motor FIM). Decision tree analysis using admission data: subtotal SCIM mobility score ≤5, age ≥74 years, and upper extremity motor score (UEMS) <23 predict discharge to a facility (AUC 0.869).

Management

  • •Initiate acute rehabilitation immediately after stabilization. The core team includes physiatrist, physical and occupational therapists, rehabilitation nurses, psychologist, social worker, and therapeutic recreation specialist. Weekly physician-led safety huddles reduce adverse events from 31.2 to 22.9 per month. Begin discharge planning on admission: assess social support, home accessibility, and funding for durable medical equipment.
  • •Implement pressure injury prevention on day 1. Calculate the FIM bed/chair transfer score; if <4 (especially 1 = total assist), trigger enhanced protocols: specialty mattress, repositioning every 2 hours, individualized prevention plan. This is more accurate than any risk scale. Patients admitted with a stage ≥2 pressure ulcer have a 30.2% risk of developing a new ulcer during rehabilitation, mandating intensified surveillance.
  • •Prescribe graded arm ergometry or functional electrical stimulation (FES) cycling at least 3-5 sessions per week, titrating intensity to 60-80% of peak heart rate when autonomic function permits. For high cervical injuries (C3 AIS B), consider early integration of transcutaneous spinal cord stimulation (tSCS) alongside physical therapy (case-level evidence). Monitor blood pressure closely during mobilization: orthostatic hypotension occurs in 73% of motor complete tetraplegia. Use abdominal binder, compression stockings, and gradual tilt-table progression.
  • •For motor incomplete injuries, gait training is indicated but only if the patient is likely to become a functional ambulator. Avoid gait training in patients who will primarily use a wheelchair, it carries opportunity costs: less transfer and wheeled mobility training, and worse CHART scores at 1 year. Instead, prioritize wheelchair skills training and transfer training. Use robotic locomotor training plus overground therapy (LKOGT) for walking recovery; it improves the 6-minute walk test more than conventional overground training.
  • •For upper limb function in cervical SCI, use task-specific training with high repetition. The CUE-T predicts ADL independence; cutoff values from 13 to 61 points guide therapy. Prescribe at least 3-5 sessions per week of occupational therapy focusing on self-care, computer access, and environmental control. Consider acute intermittent hypoxia (AIH): 15 episodes of 9% oxygen per day for 5 days combined with hand opening practice improves Box and Block Test scores and hand aperture in chronic cervical SCI.
  • •For neuropathic pain, NFX88 2.1 g/day added to pregabalin (150-300 mg/day) provides significant relief without severe adverse effects (phase II trial). Alternative: gabapentin or pregabalin alone. Avoid nonsteroidal anti-inflammatory drugs for neuropathic pain. For spasticity, use stretching, oral agents (baclofen up to 80 mg/day, tizanidine up to 36 mg/day), botulinum toxin, or intrathecal baclofen. Animal-assisted therapy (equine) may reduce spasticity but long-term effects are contested.
  • •Manage neurogenic bladder with intermittent self-catheterization (ISC) as first-line if possible. Age >65 years and high-level tetraplegia are negative predictors for ISC; consider suprapubic catheterization. Use antimuscarinics or β3-agonists (e.g., mirabegron) for detrusor overactivity; mirabegron reduces incontinence from 60.3% to 38.1% and maximum detrusor pressure. Perform video-urodynamic surveillance even in asymptomatic patients to detect morphologic changes. Intradetrusor onabotulinumtoxinA is used infrequently in the post-acute phase but is an option.
  • •Screen for depression with PHQ-9 (cutoff ≥11) at admission and during rehabilitation. Provide psychological support and cognitive behavioral therapy as needed. Screen significant others for caregiver burden; ~20% score above the clinical cutoff at admission and discharge. Early identification allows targeted support. For return to work, refer to supported employment (Individual Placement and Support) which achieves 30.8% employment rates vs 2.3% with standard care.
  • •Monitor cardiometabolic risk: fasting lipid panel, glucose, waist circumference at admission and discharge. Initiate dietary counseling and pharmacotherapy (statin if LDL >100 mg/dL or 10-year risk >7.5%) per standard guidelines. By discharge, 64% of patients are overweight and 39.4% have metabolic syndrome. BMI increases significantly in the first year after discharge.
  • •Provide assistive technology (AT) prescription based on person-centered goals. Manual wheelchair seat height should achieve an elbow angle of 100-130° to optimize efficiency. Assess wheelchair skills using validated models; supplement clinical judgment. For tetraplegia, computer-access devices have high abandonment rates (18.4%), so involve the patient in selection. Consider virtual reality platforms for group therapy to improve mood and self-esteem.
  • •Discharge criteria: total SCIM score <40 predicts institutional discharge. Use decision tree: if subtotal mobility score ≤5, age ≥74 years, UEMS <23 → plan for facility placement. Begin home modification planning early. Arrange for a weekend home pass and at least one therapeutic community outing before discharge. Ensure follow-up with a multidisciplinary SCI clinic.
  • •What NOT to do: Do not prescribe gait training for non-ambulatory patients. Do not rely on SCIPUS or Braden Scale for pressure injury risk, use the FIM transfer score. Do not delay discharge planning until the end of rehabilitation. Do not ignore caregiver burden screening. Do not start lithium for neuroregeneration, it has no benefit beyond pain reduction.

Board Review — High Yield

  • •ASIA Impairment Scale (AIS), The gold standard for classifying SCI completeness: A (complete) to E (normal). AIS A/B have worse functional prognosis.
  • •FIM bed/chair transfer score <4, The single best predictor of pressure injury during rehabilitation (sensitivity 97%), outperforming SCIPUS and Braden scales.
  • •PHQ-9 cutoff ≥11, Sensitivity 1.00, specificity 0.84 for major depressive disorder in SCI; negative predictive value 1.00, making it an excellent rule-out.
  • •Gait training in wheelchair users, Associated with worse CHART physical independence, mobility, and occupation at 1 year due to opportunity costs (less transfer and wheelchair training).
  • •Acute intermittent hypoxia (AIH), 15 episodes of 9% oxygen/day for 5 days combined with hand opening practice improves Box and Block Test and hand aperture in chronic cervical SCI.
  • •NFX88 2.1 g/day, Phase II trial showed significant neuropathic pain reduction as add-on to pregabalin, without severe adverse effects.
  • •Mirabegron, β3-agonist reduces urinary incontinence (60.3% to 38.1%) and maximum detrusor pressure in neurogenic bladder, with good tolerability.
  • •Robotic locomotor training (LKOGT), Superior to conventional overground training for 6-minute walk test in incomplete SCI (Esclarín-Ruz et al., 2014).
  • •Decision tree for discharge, Subtotal SCIM mobility ≤5, age ≥74 years, UEMS <23 predicts facility discharge (AUC 0.869).
  • •Cardiometabolic syndrome at discharge, 39.4% of patients meet criteria; overweight/obesity increases from 56% at admission to 75% at 5 years post-discharge.

Deep Dive — Evidence Details

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