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  4. Now is the Critical Time for Engineered Neuroplasticity

Now is the Critical Time for Engineered Neuroplasticity

Neurotherapeutics, 2018 · DOI: https://doi.org/10.1007/s13311-018-0637-0 · Published: June 11, 2018

Spinal Cord InjuryNeuroplasticityBiomedical

Simple Explanation

Engineered biodevices are demonstrating the potential to create long-term changes in neural circuits, termed neuroplasticity. The approach of engineering neuroplasticity is rapidly expanding, building on recent demonstrations of improved quality of life for people with movement disorders, epilepsy, and spinal cord injury. Discovering the fundamental mechanisms of engineered neuroplasticity by leveraging anatomically well-documented systems like the spinal cord is likely to provide powerful insights into solutions for other neurotraumas.

Study Duration
Not specified
Participants
People with movement disorders, epilepsy, and spinal cord injury
Evidence Level
Review

Key Findings

  • 1
    Neural devices operating in a closed-loop, activity-dependent paradigm can powerfully influence neural circuits, leading to long-term rewiring of neural circuits that outlasts stimulation.
  • 2
    Engineered plasticity can both strengthen and weaken natural synaptic connections, providing a platform for treating spinal cord injury by enhancing connections or reducing overactive pathways.
  • 3
    Pairing neural stimulation devices with natural activity or motor retraining leads to improved function after spinal cord injury, with some participants retaining function even after stimulation is discontinued.

Research Summary

Recent advances in neuroscience and devices are ushering in a new generation of medical treatments, with engineered biodevices demonstrating the potential to create long-term changes in neural circuits (neuroplasticity). This approach is rapidly expanding and improving the quality of life for people with movement disorders, epilepsy, and spinal cord injury. Advancing experimental neuroscience, device development, and human trials can reap the benefits of engineered neuroplasticity as a therapeutic approach for improving quality of life after spinal cord injury.

Practical Implications

Clinical Translation Timeline

Given recent breakthroughs, clinical translation can be unusually short, with multisite trials of transcutaneous spinal stimulation already beginning and potential availability in 2-3 years.

Combinatorial Therapies

The greatest benefit of engineered neuroplasticity may be realized in combination with biological and pharmacological therapies to produce targeted and robust regeneration of neural circuits.

Spinal Cord as a Model

The spinal cord after injury offers a tractable anatomical model of CNS repair, potentially impacting new treatment options for other neurological disorders.

Study Limitations

  • 1
    Further work is needed to confirm findings in larger cohorts of individuals.
  • 2
    Combinatorial therapies are not always beneficial and can be counterproductive if administered simultaneously.
  • 3
    It is important to be vigilant about the potential for maladaptive plasticity to occur due to stimulation.

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