Dielectrophoresis To Manipulate Cells For Alzheimer's Research

The Alzheimer’s disease (AD) is one of the most common forms of dementia obliterates brain cells and thereafter, affects behavioral and physical aspect of the patient. Researchers put extensive and maximum efforts to eliminate or at least to reduce the progression of this wide dementia from getting...

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主要作者: Abdullah Adnan, Al-Ahdal Salman Ali
格式: Thesis
出版: 2021
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spelling my-mmu-ep.111452023-02-24T03:57:03Z Dielectrophoresis To Manipulate Cells For Alzheimer's Research 2021-02 Abdullah Adnan, Al-Ahdal Salman Ali QC501-(721) Electricity The Alzheimer’s disease (AD) is one of the most common forms of dementia obliterates brain cells and thereafter, affects behavioral and physical aspect of the patient. Researchers put extensive and maximum efforts to eliminate or at least to reduce the progression of this wide dementia from getting to advance level of its risk. They tried different approaches to fight and stand against AD. These approaches include pharmaceutical approach, electrical approach and so forth. In addition, it is disappointing that there is no unique and sophisticated solution to completely cure AD. In this project, the design of dielectrophoresis (DEP) platform is created as it may deform or dissolve amyloid-beta proteins (Aβ) that is the cause of AD. This research employed dielectrophoresis to a yeast cell suspension containing (Aβ) in a microfluidic environment. The Aβ was separated from the cells and characterized using the gradual dissolution of Aβ as a function of the applied DEP parameters. This research established the gradual dissolution of Aβ under specific DEP parameters. Further, Aβ in the fibril form at the tip of the electrode dissolved at high frequency. This was due to the conductivity of the suspending medium changing according to the frequency at 100MHz, that resulted in a higher temperature 32.925℃ at the tips of the electrodes, and consequently in the breakdown of the hydrogen bonds. However, those shaped as spheroidal monomers experienced a delay in the Aβ fibril transformation process. Yeast cells exposed to relatively low temperatures 0.01℃ at the base of the electrode that do not experience a positive or negative change in viability. The DEP microfluidic platform incorporating the integrated micro-tip electrodes array were able to selectively manipulate the yeast cells and dissolve the Aβ to a controlled extent. Suitable DEP parameters were demonstrated in term of voltage and frequency to induce such manipulation that is highly relevant for Aβ-related colloidal microfluidic research and could be applied to Alzheimer’s research. In the future, it can be by designing multifunctional Nano electrodes to act as sensor in order to attract the 2021-02 Thesis http://shdl.mmu.edu.my/11145/ http://erep.mmu.edu.my/ masters Multimedia University Faculty of Engineering and Technology EREP ID: 9874
institution Multimedia University
collection MMU Institutional Repository
topic QC501-(721) Electricity
spellingShingle QC501-(721) Electricity
Abdullah Adnan, Al-Ahdal Salman Ali
Dielectrophoresis To Manipulate Cells For Alzheimer's Research
description The Alzheimer’s disease (AD) is one of the most common forms of dementia obliterates brain cells and thereafter, affects behavioral and physical aspect of the patient. Researchers put extensive and maximum efforts to eliminate or at least to reduce the progression of this wide dementia from getting to advance level of its risk. They tried different approaches to fight and stand against AD. These approaches include pharmaceutical approach, electrical approach and so forth. In addition, it is disappointing that there is no unique and sophisticated solution to completely cure AD. In this project, the design of dielectrophoresis (DEP) platform is created as it may deform or dissolve amyloid-beta proteins (Aβ) that is the cause of AD. This research employed dielectrophoresis to a yeast cell suspension containing (Aβ) in a microfluidic environment. The Aβ was separated from the cells and characterized using the gradual dissolution of Aβ as a function of the applied DEP parameters. This research established the gradual dissolution of Aβ under specific DEP parameters. Further, Aβ in the fibril form at the tip of the electrode dissolved at high frequency. This was due to the conductivity of the suspending medium changing according to the frequency at 100MHz, that resulted in a higher temperature 32.925℃ at the tips of the electrodes, and consequently in the breakdown of the hydrogen bonds. However, those shaped as spheroidal monomers experienced a delay in the Aβ fibril transformation process. Yeast cells exposed to relatively low temperatures 0.01℃ at the base of the electrode that do not experience a positive or negative change in viability. The DEP microfluidic platform incorporating the integrated micro-tip electrodes array were able to selectively manipulate the yeast cells and dissolve the Aβ to a controlled extent. Suitable DEP parameters were demonstrated in term of voltage and frequency to induce such manipulation that is highly relevant for Aβ-related colloidal microfluidic research and could be applied to Alzheimer’s research. In the future, it can be by designing multifunctional Nano electrodes to act as sensor in order to attract the
format Thesis
qualification_level Master's degree
author Abdullah Adnan, Al-Ahdal Salman Ali
author_facet Abdullah Adnan, Al-Ahdal Salman Ali
author_sort Abdullah Adnan, Al-Ahdal Salman Ali
title Dielectrophoresis To Manipulate Cells For Alzheimer's Research
title_short Dielectrophoresis To Manipulate Cells For Alzheimer's Research
title_full Dielectrophoresis To Manipulate Cells For Alzheimer's Research
title_fullStr Dielectrophoresis To Manipulate Cells For Alzheimer's Research
title_full_unstemmed Dielectrophoresis To Manipulate Cells For Alzheimer's Research
title_sort dielectrophoresis to manipulate cells for alzheimer's research
granting_institution Multimedia University
granting_department Faculty of Engineering and Technology
publishDate 2021
_version_ 1776101397403533312