OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis

With the continued establishment of hacker-spaces and fab-labs hosted in academic libraries, there is an increase in the availability of resources for designing scientific instrumentation in the undergraduate curriculum. Many available designs, however, may be too complex to fabricate in teaching en...

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Main Authors: R.J. LeSuer, K.L. Osgood, K.E. Stelnicki, J.L. Mendez
Format: Article
Language:English
Published: Elsevier 2018-10-01
Series:HardwareX
Online Access:http://www.sciencedirect.com/science/article/pii/S246806721830052X
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spelling doaj-973f1c0735c2425c9e1bdcafa7164e152020-11-25T00:13:24ZengElsevierHardwareX2468-06722018-10-014OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysisR.J. LeSuer0K.L. Osgood1K.E. Stelnicki2J.L. Mendez3The College at Brockport, SUNY, Brockport, NY 14420, United States; Corresponding author.The College at Brockport, SUNY, Brockport, NY 14420, United StatesChicago State University, Chicago, IL 60628, United StatesChicago State University, Chicago, IL 60628, United StatesWith the continued establishment of hacker-spaces and fab-labs hosted in academic libraries, there is an increase in the availability of resources for designing scientific instrumentation in the undergraduate curriculum. Many available designs, however, may be too complex to fabricate in teaching environments. Presented here is OMIS, the Open Millifluidic Inquiry System, which is a platform for performing small-scale chemical synthesis and analysis. OMIS consists of a 3D printed syringe pump, control hardware based upon the Arduino microcontroller and 3D printed reaction vessels. The OMIS syringe pump utilizes a low-power stepper motor which simplifies the instrument construction and allows for power to be supplied from batteries or the USB port of a computer. The simple design of OMIS allows for the instrument to be fabricated in one day, including the time to 3D print components. The OMIS syringe pump is able to deliver fluids at rates between 60 and 300 μL/min, depending on syringe size, with a reproducibility of 3%. Several applications of OMIS are presented, including a demonstration of laminar flow in a 3D printed millifluidic chip, implementation of a low-volume flow-cell cuvette insert and the synthesis of magnetite nanoparticles. Keywords: 3D printed syringe pump, Arduino microcontroller, Lab on a chiphttp://www.sciencedirect.com/science/article/pii/S246806721830052X
collection DOAJ
language English
format Article
sources DOAJ
author R.J. LeSuer
K.L. Osgood
K.E. Stelnicki
J.L. Mendez
spellingShingle R.J. LeSuer
K.L. Osgood
K.E. Stelnicki
J.L. Mendez
OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis
HardwareX
author_facet R.J. LeSuer
K.L. Osgood
K.E. Stelnicki
J.L. Mendez
author_sort R.J. LeSuer
title OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis
title_short OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis
title_full OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis
title_fullStr OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis
title_full_unstemmed OMIS: The Open Millifluidic Inquiry System for small scale chemical synthesis and analysis
title_sort omis: the open millifluidic inquiry system for small scale chemical synthesis and analysis
publisher Elsevier
series HardwareX
issn 2468-0672
publishDate 2018-10-01
description With the continued establishment of hacker-spaces and fab-labs hosted in academic libraries, there is an increase in the availability of resources for designing scientific instrumentation in the undergraduate curriculum. Many available designs, however, may be too complex to fabricate in teaching environments. Presented here is OMIS, the Open Millifluidic Inquiry System, which is a platform for performing small-scale chemical synthesis and analysis. OMIS consists of a 3D printed syringe pump, control hardware based upon the Arduino microcontroller and 3D printed reaction vessels. The OMIS syringe pump utilizes a low-power stepper motor which simplifies the instrument construction and allows for power to be supplied from batteries or the USB port of a computer. The simple design of OMIS allows for the instrument to be fabricated in one day, including the time to 3D print components. The OMIS syringe pump is able to deliver fluids at rates between 60 and 300 μL/min, depending on syringe size, with a reproducibility of 3%. Several applications of OMIS are presented, including a demonstration of laminar flow in a 3D printed millifluidic chip, implementation of a low-volume flow-cell cuvette insert and the synthesis of magnetite nanoparticles. Keywords: 3D printed syringe pump, Arduino microcontroller, Lab on a chip
url http://www.sciencedirect.com/science/article/pii/S246806721830052X
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