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Tratado de Cirurgia da Coluna Vertebral
SECTION 3 • Section 3 — Spinal Trauma
Chapter24

Pediatric Spine Traumatic Injuries

Vancouver: Cristante AF, Freitas MTB, Figueiredo CCN📖 Pages: 347-352
Full reading of this chapter is available exclusively in the printed edition of the Treatise.
Sec. 3Section 3 — Spinal Trauma
Cap. 24Clinical Chapter
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Chapter Summary

• Context: Traumatic injuries of the vertebral column in pediatric patients possess unique anatomical, biomechanical, and physiological characteristics distinct from adult spine trauma. The immature spine is characterized by increased ligamentous laxity, shallower and more horizontally oriented facet joints, cartilaginous vertebral endplates, physiological anterior wedging of vertebral bodies, active synchondroses and neurocentral junctions, and a disproportionately large head-to-body mass ratio (fulcrum of cervical motion located at C2–C3 in young children under 8 years, migrating to C5–C6 after age 8–10). These anatomical traits make the pediatric spine remarkably resilient to bony fractures under axial loading, but highly susceptible to severe distraction, hyperflexion, and hyperextension ligamentous injuries, including atlanto-occipital dislocation, pseudosubluxation of C2 on C3, and Spinal Cord Injury Without Radiographic Abnormality (SCIWORA). Pediatric spine trauma evaluation requires deep familiarity with developmental ossification centers to avoid mistaking normal synchondroses or physiological pseudosubluxation (Peschiera/Swischuk line) for acute traumatic fractures or dislocations. Management emphasizes non-operative immobilization in the vast majority of stable cases, preserving spinal growth potential, while unstable injuries and progressive spinal deformities require specialized instrumentation adapted to pediatric bone dimensions.
• Chapter Objective: To present the systematic clinical and radiological evaluation, diagnostic imaging algorithms, and evidence-based non-operative and surgical guidelines for pediatric and adolescent spine trauma. The reader should be able to understand the developmental anatomy and biomechanics of the immature skeleton; differentiate normal developmental synchondroses and physiological pseudosubluxation from true pathology; diagnose and manage SCIWORA; select immobilization strategies (including positioning adjustments for the prominent occiput); and apply age-appropriate surgical stabilization techniques.
• Anatomical and Biomechanical Specifics of the Immature SpineThe pediatric spine features unique mechanical properties: 1) Extreme ligamentous elasticity (the pediatric vertebral column can stretch up to 5 cm without structural rupture, whereas the spinal cord ruptures with just 0.5–1.0 cm of elongation, explaining SCIWORA); 2) Horizontal facet orientation (permitting excessive translational motion without bony fracture); 3) Physiological anterior vertebral body wedging and cartilaginous endplates; 4) Higher cervical fulcrum: the head-to-torso ratio shifts the mechanical pivot point to C2–C3 in children <8 years old, making upper cervical injuries (C0–C2) far more common than subaxial injuries; 5) Active synchondroses: neurocentral synchondroses, dentocentral synchondrosis (base of odontoid, fuses at 5–7 years), and apical odontoid ossiculum terminale (appears at 3–6 years, fuses at 12 years).
• SCIWORA Syndrome and Diagnostic NeuroimagingSpinal Cord Injury Without Radiographic Abnormality (SCIWORA) is defined as objective traumatic spinal cord injury without evidence of bony fracture or dislocation on standard plain radiographs and computed tomography. It accounts for up to 10–20% of pediatric spinal cord injuries, resulting from transient severe elastic distraction or hyperextension. Magnetic resonance imaging (MRI) is mandatory in all cases: MRI demonstrates intramedullary cord contusion, edema, transection, hemorrhage, or subclinical ligamentous disruption (STIR hyperintensity). In patients with normal radiographs and transient paresthesias or motor weakness, MRI confirms or excludes true cord pathology.
• Pediatric Management, Positioning, and Fixation PrinciplesIn the emergency department, pediatric cervical immobilization requires a specialized pediatric backboard with an occipital recess or a thoracic elevation pad under the torso (1.5–2.5 cm) to compensate for the prominent occiput and prevent forced cervical hyperflexion. Non-operative management with a molded Minerva cast, halo-vest, or rigid cervical collar achieves bony healing in >85–90% of pediatric fractures due to robust periosteum and exceptional osteogenic remodeling potential. Surgical stabilization is reserved for documented complete ligamentous tears (which do not heal with immobilization), irreducible dislocations, progressive post-traumatic deformity, or open injuries. Instrumentation utilizes low-profile pediatric pedicle screws, rib hooks, or sublaminar wires, minimizing fusion levels to preserve spinal growth.
• Clinical Application: In emergency pediatric resuscitation, never immobilize a young child (<8 years) flat on an adult rigid backboard without a thoracic elevating pad, as the large occiput forces the neck into dangerous kyphotic flexion. To differentiate physiological pseudosubluxation of C2 on C3 (normal in up to 40% of children under 8) from true traumatic dislocation, apply Swischuk's line (posterior cervical line connecting the anterior cortex of C1, C2, and C3 spinous processes): if the anterior cortex of the C2 spinous process lies within 1.5–2.0 mm of this line, pseudosubluxation is physiological; if displaced >2 mm, true traumatic disruption is present. In any child presenting with transient weakness, numbness, or subjective electric shock sensations following trauma despite completely normal CT scans, maintain rigid collar immobilization and obtain urgent whole-spine MRI to diagnose SCIWORA before discharging the patient. Treat confirmed SCIWORA with 8–12 weeks of activity restriction and collar immobilization to prevent secondary reinjury to the vulnerable spinal cord.
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Keywords

Preferred DeCS/MeSH Descriptors:
PediatricsSpinal FracturesSpinal Cord InjuriesSpinal Cord Injury Without Radiographic AbnormalitySpineChild DevelopmentMagnetic Resonance ImagingJoint Instability
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Why this chapter matters

Misinterpreting a normal developmental synchondrosis as a fracture leads to unnecessary surgery and psychological trauma, while discharging a child with undiagnosed SCIWORA risks permanent catastrophic paralysis following a minor secondary impact. This chapter provides the pediatric developmental criteria, Swischuk measurement lines, emergent positioning rules (thoracic pad), and MRI protocols necessary to protect the developing spinal cord and preserve growth potential.

“Pediatric spine trauma requires careful interpretation of the developing, immature skeleton to avoid confusing physiological synchondroses and pseudosubluxation with acute fractures, and to detect occult neural injuries (SCIWORA) early. The vast elasticity of pediatric ligaments and high osteogenic potential favor non-operative management in most cases, while surgical stabilization is reserved for gross ligamentous instability and progressive deformity, respecting remaining spinal growth.”
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Chapter Highlights

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Card 1 — Core Concept
Pediatric Elasticity and SCIWORA

The pediatric spine can stretch up to 5 cm without skeletal disruption, whereas the spinal cord ruptures at just 0.5–1.0 cm of stretch. This biomechanical mismatch explains SCIWORA (Spinal Cord Injury Without Radiographic Abnormality), requiring urgent MRI.

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Card 2 — Clinical Decision
Swischuk Line Differentiates Pseudosubluxation

In children <8 years, C2–C3 anterior displacement is often physiological. Draw the Swischuk line connecting the anterior cortices of C1, C2, and C3 spinous processes: if the C2 spinous process is within 1.5–2.0 mm, it is benign pseudosubluxation; if >2 mm, it is a traumatic subluxation.

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Card 3 — Key Pearl / Warning
Thoracic Pad Prevents Forced Flexion

Children have a disproportionately large occiput. Placing a child flat on an adult backboard forces the cervical spine into dangerous hyperflexion. Always place a 2 cm elevation pad under the thoracic torso to maintain a neutral cervical spine.

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How to Cite this Chapter (Vancouver Format)

Official bibliographic indexing and citation guidelines
📖 Pages: 347-352Vancouver Style
Authors (Vancouver):Cristante AF, Freitas MTB, Figueiredo CCN

Cristante AF, Freitas MTB, Figueiredo CCN. Lesões traumáticas da coluna na infância. In: Pudles E, Defino H, Risso M, editors. Tratado de Cirurgia da Coluna Vertebral (Treatise of Spine Surgery). 1st ed. Rio de Janeiro: Dilivros Editora; 2026. p. 347-352.

ISBN: 978-85-8053-292-0 • 1.ª Edição • Dilivros Editora
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Bibliographic References

1. Pang D, Wilberger JE Jr. Spinal cord injury without radiographic abnormalities in children. J Neurosurg. 1982;57(1):114-129.
2. Cristante AF, et al. Lesões traumáticas da coluna vertebral na infância e adolescência. Rev Bras Ortop. 2012;47(4):420-428.
3. Leonard M, et al. Pediatric cervical spine trauma: a comprehensive review. Childs Nerv Syst. 2014;30(1):15-28.
4. Booth TN. Cervical spine evaluation in pediatric trauma. AJR Am J Roentgenol. 2012;198(5):W417-W425.
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