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A Dependable Microelectronic Peptide Synthesizer Using Electrode Data

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A Dependable Microelectronic Peptide Synthesizer Using Electrode Data. / Richardson, Andrew; Kerkhoff, H G ; Zhang, X. et al.
In: VLSI Design, Vol. 2008, No. n/a, 437879, 2008.

Research output: Contribution to Journal/Magazine › Journal article › peer-review

Harvard

Richardson, A, Kerkhoff, HG, Zhang, X, Mailly, F, Nouet, P & Liu, H 2008, 'A Dependable Microelectronic Peptide Synthesizer Using Electrode Data', VLSI Design, vol. 2008, no. n/a, 437879. https://doi.org/10.1155/2008/437879

APA

Richardson, A., Kerkhoff, H. G., Zhang, X., Mailly, F., Nouet, P., & Liu, H. (2008). A Dependable Microelectronic Peptide Synthesizer Using Electrode Data. VLSI Design, 2008(n/a), Article 437879. https://doi.org/10.1155/2008/437879

Vancouver

Richardson A, Kerkhoff HG, Zhang X, Mailly F, Nouet P, Liu H. A Dependable Microelectronic Peptide Synthesizer Using Electrode Data. VLSI Design. 2008;2008(n/a):437879. doi: 10.1155/2008/437879

Author

Richardson, Andrew ; Kerkhoff, H G ; Zhang, X. et al. / A Dependable Microelectronic Peptide Synthesizer Using Electrode Data. In: VLSI Design. 2008 ; Vol. 2008, No. n/a.

Bibtex

@article{358e504e9cd54251af7eb3127a1c03b2,
title = "A Dependable Microelectronic Peptide Synthesizer Using Electrode Data",
abstract = "The research in the area of microelectronic fluidic devices for biomedical applications is rapidly growing. As faults in these devices can have serious personal implications, a system is presented which includes fault tolerance with respect to the synthesized biomaterials (peptides). It can employ presence and purity detection of peptide droplets via current (charge) tests of control electrodes or impedance (phase) measurements using direct sensing electrodes near the peptide collector area. The commercial multielectrode array performs better in pure and impure detection of peptides in impedance and phase. Our two-electrode X-MEF case shows slightly poorer results. In both cases the phase is the best choice for contents detection. If there are presence or purity problems, the location is marked, and repeated peptide synthesis at another collector site is initiated.",
author = "Andrew Richardson and Kerkhoff, {H G} and X. Zhang and F. Mailly and P. Nouet and Hongyuan Liu",
year = "2008",
doi = "10.1155/2008/437879",
language = "English",
volume = "2008",
journal = "VLSI Design",
issn = "1065-514X",
publisher = "Hindawi Publishing Corporation",
number = "n/a",

}

RIS

TY - JOUR

T1 - A Dependable Microelectronic Peptide Synthesizer Using Electrode Data

AU - Richardson, Andrew

AU - Kerkhoff, H G

AU - Zhang, X.

AU - Mailly, F.

AU - Nouet, P.

AU - Liu, Hongyuan

PY - 2008

Y1 - 2008

N2 - The research in the area of microelectronic fluidic devices for biomedical applications is rapidly growing. As faults in these devices can have serious personal implications, a system is presented which includes fault tolerance with respect to the synthesized biomaterials (peptides). It can employ presence and purity detection of peptide droplets via current (charge) tests of control electrodes or impedance (phase) measurements using direct sensing electrodes near the peptide collector area. The commercial multielectrode array performs better in pure and impure detection of peptides in impedance and phase. Our two-electrode X-MEF case shows slightly poorer results. In both cases the phase is the best choice for contents detection. If there are presence or purity problems, the location is marked, and repeated peptide synthesis at another collector site is initiated.

AB - The research in the area of microelectronic fluidic devices for biomedical applications is rapidly growing. As faults in these devices can have serious personal implications, a system is presented which includes fault tolerance with respect to the synthesized biomaterials (peptides). It can employ presence and purity detection of peptide droplets via current (charge) tests of control electrodes or impedance (phase) measurements using direct sensing electrodes near the peptide collector area. The commercial multielectrode array performs better in pure and impure detection of peptides in impedance and phase. Our two-electrode X-MEF case shows slightly poorer results. In both cases the phase is the best choice for contents detection. If there are presence or purity problems, the location is marked, and repeated peptide synthesis at another collector site is initiated.

U2 - 10.1155/2008/437879

DO - 10.1155/2008/437879

M3 - Journal article

VL - 2008

JO - VLSI Design

JF - VLSI Design

SN - 1065-514X

IS - n/a

M1 - 437879

ER -