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    Fabrication of In-Channel High-Aspect Ratio Sensing Pillars for Protrusive Force Measurements on Fungi and Oomycetes (2018)

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    Type of Content
    Journal Article
    UC Permalink
    https://hdl.handle.net/10092/100858
    
    Publisher's DOI/URI
    http://doi.org/10.1109/JMEMS.2018.2862863
    
    Publisher
    Institute of Electrical and Electronics Engineers (IEEE)
    ISSN
    1057-7157
    1941-0158
    Collections
    • Engineering: Journal Articles [1636]
    Authors
    Sun, Yiling
    Tayagui, Ayelen
    Garrill, Ashley
    Nock, Volker
    show all
    Abstract

    © 1992-2012 IEEE. This paper reports the fabrication and application of a Lab-on-a-Chip platform containing single-elastomeric micropillars in channel constrictions, which enable the measurement of protrusive forces exerted by individual fungal hyphae. We show the device design, the fabrication process, and photoresist optimization required to adapt the microfluidic platform to relatively thin hyphae. To demonstrate the applicability of the devices, the oomycete Achlya bisexualis and the fungus Neurospora crassa were cultured on PDMS chips. Devices were combined with confocal imaging to study the interaction of A. bisexualis hyphae with the measurement pillars. The force exerted by individual hyphae of N. crassa was measured and compared with a hyphal growth rate and diameter. The platform provides a new tool to help understand the molecular processes that underlie protrusive growth and this may present new ways to tackle the pathogenic growth of these organisms and thus combat the loss of diversity that they cause. This paper is based on the conference proceedings presented at the 31st IEEE International Conference on Micro Electro Mechanical Systems (MEMS 2018), Belfast. [2018-0090]

    Citation
    Sun Y, Tayagui A, Garrill A, Nock V (2018). Fabrication of In-Channel High-Aspect Ratio Sensing Pillars for Protrusive Force Measurements on Fungi and Oomycetes. Journal of Microelectromechanical Systems. 27(5). 827-835.
    This citation is automatically generated and may be unreliable. Use as a guide only.
    Keywords
    Lab-on-a-chip; force sensor; PDMS micropillars; fungi and oomycetes
    ANZSRC Fields of Research
    31 - Biological sciences::3107 - Microbiology::310705 - Mycology
    40 - Engineering::4016 - Materials engineering::401605 - Functional materials
    40 - Engineering::4017 - Mechanical engineering::401705 - Microelectromechanical systems (MEMS)
    40 - Engineering::4018 - Nanotechnology::401801 - Micro- and nanosystems
    Rights
    All rights reserved unless otherwise stated
    http://hdl.handle.net/10092/17651

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    • Fabrication of In-Channel High-Aspect Ratio Sensing Pillars for Protrusive Force Measurements on Fungi and Oomycetes 

      Sun Y; Tayagui A; Garrill A; Nock V (Institute of Electrical and Electronics Engineers (IEEE), 2018)
      © 1992-2012 IEEE. This paper reports the fabrication and application of a Lab-on-a-Chip platform containing single-elastomeric micropillars in channel constrictions, which enable the measurement of protrusive forces exerted ...
    • A monolithic polydimethylsiloxane platform for zoospore Capture, germination and single hypha force sensing 

      TAYAGUI, AYELEN BETSABE; Sun, Yiling; Nock, Volker; Garrill, Ashley (IEEE, 2019)
      This paper reports a triple-layer, polydimethylsiloxane (PDMS)-based lab-on-a-chip platform combining the capture and culture of individual oomycete zoospores with integrated force sensing on germinated hyphae. The platform ...
    • A monolithic polydimethylsiloxane platform for zoospore Capture, germination and single hypha force sensing 

      Sun Y; Tayagui A; Garrill A; Nock V (IEEE, 2019)
      This paper reports a triple-layer, polydimethylsiloxane (PDMS)-based lab-on-a-chip platform combining the capture and culture of individual oomycete zoospores with integrated force sensing on germinated hyphae. The platform ...
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