Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology

In recent years, open-source 3D printing technologies have become increasingly applied to biological research. We have created a fully open-source, versatile and low cost XYZ positioning system using 3D printer components. As this system is controlled by a Python3 based operating system running on a...

Full description

Bibliographic Details
Main Authors: Thomas Campbell, James F.X. Jones
Format: Article
Language:English
Published: Elsevier 2020-04-01
Series:HardwareX
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2468067220300079
id doaj-21c54be5636d4da8a3ee2e5e3909a54b
record_format Article
spelling doaj-21c54be5636d4da8a3ee2e5e3909a54b2020-11-25T02:34:28ZengElsevierHardwareX2468-06722020-04-017Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiologyThomas Campbell0James F.X. Jones1Corresponding author.; School of Medicine, University College Dublin, IrelandSchool of Medicine, University College Dublin, IrelandIn recent years, open-source 3D printing technologies have become increasingly applied to biological research. We have created a fully open-source, versatile and low cost XYZ positioning system using 3D printer components. As this system is controlled by a Python3 based operating system running on a Raspberry Pi 3 Model B, its behaviour can be adapted to meet multiple needs in neurophysiology. We have developed two main applications of this system. First, we have created an automated microscopy script that links seamlessly with image stitching plugins in ImageJ (Fiji) allowing the user to create high resolution montages. Second, we have created a series of movement scripts allowing the application of graded rates of stretch to muscle spindles. Here we outline the construction and implementation of this system and discuss how we have utilised this tool in our research.http://www.sciencedirect.com/science/article/pii/S2468067220300079NeurophysiologyMechanotransductionXYZ positioning systemAutomated microscopyRaspberry PiArduino
collection DOAJ
language English
format Article
sources DOAJ
author Thomas Campbell
James F.X. Jones
spellingShingle Thomas Campbell
James F.X. Jones
Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology
HardwareX
Neurophysiology
Mechanotransduction
XYZ positioning system
Automated microscopy
Raspberry Pi
Arduino
author_facet Thomas Campbell
James F.X. Jones
author_sort Thomas Campbell
title Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology
title_short Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology
title_full Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology
title_fullStr Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology
title_full_unstemmed Design and implementation of a low cost, modular, adaptable and open-source XYZ positioning system for neurophysiology
title_sort design and implementation of a low cost, modular, adaptable and open-source xyz positioning system for neurophysiology
publisher Elsevier
series HardwareX
issn 2468-0672
publishDate 2020-04-01
description In recent years, open-source 3D printing technologies have become increasingly applied to biological research. We have created a fully open-source, versatile and low cost XYZ positioning system using 3D printer components. As this system is controlled by a Python3 based operating system running on a Raspberry Pi 3 Model B, its behaviour can be adapted to meet multiple needs in neurophysiology. We have developed two main applications of this system. First, we have created an automated microscopy script that links seamlessly with image stitching plugins in ImageJ (Fiji) allowing the user to create high resolution montages. Second, we have created a series of movement scripts allowing the application of graded rates of stretch to muscle spindles. Here we outline the construction and implementation of this system and discuss how we have utilised this tool in our research.
topic Neurophysiology
Mechanotransduction
XYZ positioning system
Automated microscopy
Raspberry Pi
Arduino
url http://www.sciencedirect.com/science/article/pii/S2468067220300079
work_keys_str_mv AT thomascampbell designandimplementationofalowcostmodularadaptableandopensourcexyzpositioningsystemforneurophysiology
AT jamesfxjones designandimplementationofalowcostmodularadaptableandopensourcexyzpositioningsystemforneurophysiology
_version_ 1724808722646040576