A Comparative Evaluation of Magnetorheological Micropump Designs

In this study, we assessed the performance characteristics of five different magnetorheological micropump designs, two of which were our proposed designs, while others were from the existing designs in the literature. Comparisons have been performed based on physics-based simulations, and the fully...

Full description

Bibliographic Details
Main Authors: Sevki Cesmeci, Rubayet Hassan, Mahmoud Baniasadi
Format: Article
Language:English
Published: MDPI AG 2022-05-01
Series:Micromachines
Subjects:
Online Access:https://www.mdpi.com/2072-666X/13/5/764
_version_ 1797497781765537792
author Sevki Cesmeci
Rubayet Hassan
Mahmoud Baniasadi
author_facet Sevki Cesmeci
Rubayet Hassan
Mahmoud Baniasadi
author_sort Sevki Cesmeci
collection DOAJ
description In this study, we assessed the performance characteristics of five different magnetorheological micropump designs, two of which were our proposed designs, while others were from the existing designs in the literature. Comparisons have been performed based on physics-based simulations, and the fully coupled magneto-solid-fluid interaction simulations were carried out in COMSOL Multiphysics software. For a fair and meaningful comparison, both the material and geometric properties were kept the same, and the simulations were run for one complete pumping cycle. The results showed that the proposed flap and duckbill valve models could pump 1.09 µL and 1.16 µL respectively in 1 s, which was more than the rest of the existing micropump models. Moreover, at 0.5 s, when the magnetic flux density was maximum, the flap and duckbill valve models could pump almost twice as fluid as some of the existing valve models did. The results also demonstrated that the flap and duckbill valve models were nearly five times faster than some of existing models. In conclusion, the proposed two micropump models could propel more net fluid volume than the existing micropump designs, experienced low leakage during the contraction and expansion phase, and had faster response times. We believe that the present study provides valuable insights for future micropump designs, which have an extensive range of application areas, ranging from insulin dosing systems for T1D patients to artificial organs to transport blood and from organ-on-chip applications to micro-cooling systems.
first_indexed 2024-03-10T03:24:10Z
format Article
id doaj.art-8b35fd6978ea409a862029cf9b902efd
institution Directory Open Access Journal
issn 2072-666X
language English
last_indexed 2024-03-10T03:24:10Z
publishDate 2022-05-01
publisher MDPI AG
record_format Article
series Micromachines
spelling doaj.art-8b35fd6978ea409a862029cf9b902efd2023-11-23T12:12:49ZengMDPI AGMicromachines2072-666X2022-05-0113576410.3390/mi13050764A Comparative Evaluation of Magnetorheological Micropump DesignsSevki Cesmeci0Rubayet Hassan1Mahmoud Baniasadi2Department of Mechanical Engineering, Georgia Southern University, Statesboro, GA 30460, USADepartment of Mechanical Engineering, Georgia Southern University, Statesboro, GA 30460, USAIntel Corporation, Hillsboro, OR 97124, USAIn this study, we assessed the performance characteristics of five different magnetorheological micropump designs, two of which were our proposed designs, while others were from the existing designs in the literature. Comparisons have been performed based on physics-based simulations, and the fully coupled magneto-solid-fluid interaction simulations were carried out in COMSOL Multiphysics software. For a fair and meaningful comparison, both the material and geometric properties were kept the same, and the simulations were run for one complete pumping cycle. The results showed that the proposed flap and duckbill valve models could pump 1.09 µL and 1.16 µL respectively in 1 s, which was more than the rest of the existing micropump models. Moreover, at 0.5 s, when the magnetic flux density was maximum, the flap and duckbill valve models could pump almost twice as fluid as some of the existing valve models did. The results also demonstrated that the flap and duckbill valve models were nearly five times faster than some of existing models. In conclusion, the proposed two micropump models could propel more net fluid volume than the existing micropump designs, experienced low leakage during the contraction and expansion phase, and had faster response times. We believe that the present study provides valuable insights for future micropump designs, which have an extensive range of application areas, ranging from insulin dosing systems for T1D patients to artificial organs to transport blood and from organ-on-chip applications to micro-cooling systems.https://www.mdpi.com/2072-666X/13/5/764micropumpmagnetorheologicalMREmagneto-solid-fluid interaction
spellingShingle Sevki Cesmeci
Rubayet Hassan
Mahmoud Baniasadi
A Comparative Evaluation of Magnetorheological Micropump Designs
Micromachines
micropump
magnetorheological
MRE
magneto-solid-fluid interaction
title A Comparative Evaluation of Magnetorheological Micropump Designs
title_full A Comparative Evaluation of Magnetorheological Micropump Designs
title_fullStr A Comparative Evaluation of Magnetorheological Micropump Designs
title_full_unstemmed A Comparative Evaluation of Magnetorheological Micropump Designs
title_short A Comparative Evaluation of Magnetorheological Micropump Designs
title_sort comparative evaluation of magnetorheological micropump designs
topic micropump
magnetorheological
MRE
magneto-solid-fluid interaction
url https://www.mdpi.com/2072-666X/13/5/764
work_keys_str_mv AT sevkicesmeci acomparativeevaluationofmagnetorheologicalmicropumpdesigns
AT rubayethassan acomparativeevaluationofmagnetorheologicalmicropumpdesigns
AT mahmoudbaniasadi acomparativeevaluationofmagnetorheologicalmicropumpdesigns
AT sevkicesmeci comparativeevaluationofmagnetorheologicalmicropumpdesigns
AT rubayethassan comparativeevaluationofmagnetorheologicalmicropumpdesigns
AT mahmoudbaniasadi comparativeevaluationofmagnetorheologicalmicropumpdesigns