4.7 Review

Non-invasive approaches to functional recovery after spinal cord injury: Therapeutic targets and multimodal device interventions

Journal

EXPERIMENTAL NEUROLOGY
Volume 339, Issue -, Pages -

Publisher

ACADEMIC PRESS INC ELSEVIER SCIENCE
DOI: 10.1016/j.expneurol.2021.113612

Keywords

Brain-computer interface; Buspirone; Multimodal device; Neurobiology; Neuromodulation; Non-invasive therapy; Pharmacology; Prosthesis; Rehabilitation; Serotonin; Spinal cord injury

Categories

Funding

  1. Motor Accident Insurance Commission, Queensland Government, Australia
  2. Perpetual IMPACT
  3. Griffith University
  4. US AMRMC [W81XWH-15-1-0621]
  5. SCI Trust Fund of The Commonwealth of Massachusetts
  6. Gordon Project to Cure Clinical Paralysis
  7. Cele H. and William B. Rubin Family Fund
  8. Roosevelt Warm Springs Foundation
  9. Australia-Harvard Fellowship (2020)
  10. BAU Medical School, Turkey
  11. Wuhan Union Hospital, Tongji Medical College/HZUST, PRC

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This interdisciplinary narrative review discusses efficacious non-invasive therapies for chronic spinal cord injuries, focusing on pharmacological treatments and neuromechanical devices. It highlights the potential of neuromechanical devices to induce neuroplasticity-based neural pattern generation. Future research should concentrate on personalizing combination therapies for optimizing rehabilitation outcomes.
This paper is an interdisciplinary narrative review of efficacious non-invasive therapies that are increasingly used to restore function in people with chronic spinal cord injuries (SCI). First presented are the secondary injury cascade set in motion by the primary lesion and highlights in therapeutic development for mitigating the acute pathophysiologic process. Then summarized are current pharmacological strategies for modulation of norad-renergic, serotonergic, and dopaminergic neurotransmission to enhance recovery in bench and clinical studies of subacute and chronic SCI. Last examined is how neuromechanical devices (i.e., electrical stimulation, robotic assistance, brain-computer interface, and augmented sensory feedback) could be comprehensively engineered to engage efferent and afferent motosensory pathways to induce neuroplasticity-based neural pattern generation. Emerging evidence shows that computational models of the human neuromusculoskeletal system (i.e., human digital twins) can serve as functionalized anchors to integrate different neuromechanical and pharmacological interventions into a single multimodal prothesis. The system, if appropriately built, may cybernetically optimize treatment outcomes via coordination of heterogeneous biosensory, system output, and control signals. Overall, these rehabilitation protocols involved neuromodulation to evoke beneficial adaptive changes within spared supraspinal, intracord, and peripheral neuromuscular circuits to elicit neurological improvement. Therefore, qualitatively advancing the theoretical understanding of spinal cord neurobiology and neuromechanics is pivotal to designing new ways to reinstate locomotion after SCI. Future research efforts should concentrate on personalizing combination therapies consisting of pharmacological adjuncts, targeted neurobiological and neuromuscular repairs, and brain-computer interfaces, which follow multimodal neuromechanical principles.

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