Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers

The potential of peripheral nerves to regenerate under the effect of axial tensile forces was not previously extensively explored due to the lack of capabilities of translating ex vivo axonal stretch-growth to in vivo studies, until the development of a nerve stretcher. The nerve stretcher, which we...

Full description

Bibliographic Details
Main Authors: Muhammad Sana Ullah Sahar, Matthew Barton, Geoffrey Tansley
Format: Article
Language:English
Published: Elsevier 2020-04-01
Series:HardwareX
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2468067220300018
id doaj-4557a954ea204b0da6244be3347c762b
record_format Article
spelling doaj-4557a954ea204b0da6244be3347c762b2020-11-25T02:34:28ZengElsevierHardwareX2468-06722020-04-017Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibersMuhammad Sana Ullah Sahar0Matthew Barton1Geoffrey Tansley2School of Engineering and Built Environment, Griffith University, Australia; Corresponding author at: School of Engineering and Built Environment, Griffith University, Australia. (M.S.U Sahar).Clem Jones Centre for Neurobiology and Stem Cell Therapies, Griffith University, Australia; Menzies Health Institute Queensland, Griffith University, Australia; School of Nursing and Midwifery, Griffith University, AustraliaSchool of Engineering and Built Environment, Griffith University, AustraliaThe potential of peripheral nerves to regenerate under the effect of axial tensile forces was not previously extensively explored due to the lack of capabilities of translating ex vivo axonal stretch-growth to in vivo studies, until the development of a nerve stretcher. The nerve stretcher, which we have designed and manufactured recently, is a device that uses a controlled amount of axial tensile force (vacuum/negative gauge pressure) applied directly to a sectioned peripheral nerve in vivo to expedite nerve regrowth rate. Using this platform, a series of experiments was carried out to observe the effect of in vivo axial stretch on axonal lengthening. During these experiments, a few challenges necessitated redesigning the device like a sudden loss of stretching force due to vacuum leakage, erroneous feedback from vacuum sensor due to sensor drift, and inability to control and operate the device remotely. Here we present an improved design of the nerve stretcher along with its integration with a state-of-the-art online vacuum monitoring facility to control, collect, process, and visualize negative gauge pressure data in real-time.http://www.sciencedirect.com/science/article/pii/S2468067220300018Nerve stretch growthAxonal growthIn-vivo nerve stretchingNerve stretcherNerve lengthening
collection DOAJ
language English
format Article
sources DOAJ
author Muhammad Sana Ullah Sahar
Matthew Barton
Geoffrey Tansley
spellingShingle Muhammad Sana Ullah Sahar
Matthew Barton
Geoffrey Tansley
Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
HardwareX
Nerve stretch growth
Axonal growth
In-vivo nerve stretching
Nerve stretcher
Nerve lengthening
author_facet Muhammad Sana Ullah Sahar
Matthew Barton
Geoffrey Tansley
author_sort Muhammad Sana Ullah Sahar
title Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
title_short Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
title_full Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
title_fullStr Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
title_full_unstemmed Design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
title_sort design and fabrication of a nerve-stretching device for in vivo mechanotransduction of peripheral nerve fibers
publisher Elsevier
series HardwareX
issn 2468-0672
publishDate 2020-04-01
description The potential of peripheral nerves to regenerate under the effect of axial tensile forces was not previously extensively explored due to the lack of capabilities of translating ex vivo axonal stretch-growth to in vivo studies, until the development of a nerve stretcher. The nerve stretcher, which we have designed and manufactured recently, is a device that uses a controlled amount of axial tensile force (vacuum/negative gauge pressure) applied directly to a sectioned peripheral nerve in vivo to expedite nerve regrowth rate. Using this platform, a series of experiments was carried out to observe the effect of in vivo axial stretch on axonal lengthening. During these experiments, a few challenges necessitated redesigning the device like a sudden loss of stretching force due to vacuum leakage, erroneous feedback from vacuum sensor due to sensor drift, and inability to control and operate the device remotely. Here we present an improved design of the nerve stretcher along with its integration with a state-of-the-art online vacuum monitoring facility to control, collect, process, and visualize negative gauge pressure data in real-time.
topic Nerve stretch growth
Axonal growth
In-vivo nerve stretching
Nerve stretcher
Nerve lengthening
url http://www.sciencedirect.com/science/article/pii/S2468067220300018
work_keys_str_mv AT muhammadsanaullahsahar designandfabricationofanervestretchingdeviceforinvivomechanotransductionofperipheralnervefibers
AT matthewbarton designandfabricationofanervestretchingdeviceforinvivomechanotransductionofperipheralnervefibers
AT geoffreytansley designandfabricationofanervestretchingdeviceforinvivomechanotransductionofperipheralnervefibers
_version_ 1724808593711038464