4.7 Article

A micro-LED implant and technique for optogenetic stimulation of the rat spinal cord

Journal

EXPERIMENTAL NEUROLOGY
Volume 335, Issue -, Pages -

Publisher

ACADEMIC PRESS INC ELSEVIER SCIENCE
DOI: 10.1016/j.expneurol.2020.113480

Keywords

Optogenetic spinal stimulation; mu LED implant; Rat spinal cord; AAV transduction; Neural devices

Categories

Funding

  1. Craig H. Neilsen Foundation [476694]
  2. Center for Neurotechnology, a National Science Foundation-Engineering Research Center [EEC-1028725]
  3. Christopher and Dana Reeve Foundation
  4. Morton Cure Paralysis Fund
  5. Levinson Foundation

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This study introduces a long-term implantable mu LED device for optogenetic stimulation of the spinal cord in awake, freely moving rats. The device is simple enough to be fabricated, implanted, and operated by most laboratories, inducing robust movements without causing physical or thermal damage to the spinal cord for at least 6 weeks. This mu LED device could help unravel the complexities of the spinal cord and uncover potential future therapeutic options.
To date, relatively few studies have used optogenetic stimulation to address basic science and therapeutic questions within the spinal cord. Even less have reported optogenetic stimulation in the rat spinal cord. This is likely due to a lack of accessible optogenetic implants. The development of a device that can be fabricated and operated by most laboratories, requiring no special equipment, would allow investigators to begin dissecting the functions of specific neuronal cell-types and circuitry within the spinal cord, as well as investigate therapies for spinal ailments like spinal cord injury. Here, we describe a long-term implantable mu LED device designed for optogenetic stimulation of the spinal cord in awake, freely moving rats that is simple enough to be fabricated, implanted and operated by most laboratories. This device, which sits above the dorsal cord, can induce robust movements for at least 6 weeks without causing physical or thermal damage to the underlying spinal cord. In this regard, the presented mu LED device could help tease apart the complexities of the spinal cord and uncover potential future therapeutics.

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