DocumentCode
2362113
Title
A Micro-sequenced CMOS Model for Cell Signaling Pathway using G-Protein and Phosphorylation Cascade
Author
Hasan, S. M Rezaul
Author_Institution
Center for Res. in Analog & VLSI Microsyst. dEsign (CRAVE), Massey Univ., Auckland
fYear
2008
fDate
2-4 Dec. 2008
Firstpage
57
Lastpage
62
Abstract
Communication between cells in multi-cellular organisms such as animals, humans and plants is essential for co-ordinating the organismic activities of fertilization, growth, survival and reproduction. This bio-chemical communication between trillions of cells in organisms can be more complex than the Internet. This paper develops a CMOS circuit model of signal reception and signal transduction within a cell in response to extra-cellular molecular signals. A micro-sequenced model has been developed where the signal transduction steps are clocked by circadian time intervals. The model converts the chemical signaling pathway into a CMOS multi-step logical transformation cascade transducing a received signal molecule into an activated cellular protein response. This modeling technique leads to understanding cellular malfunctions (diseases) in the form of logical (electrical) faults in a circuit.
Keywords
CMOS integrated circuits; biochemistry; biomolecular electronics; cellular biophysics; proteins; CMOS circuit model; G-protein; activated cellular protein response; biochemical communication; cell signaling pathway; cellular communication; cellular malfunctions; chemical signaling pathway; circadian time intervals; diseases; extracellular molecular signals; logical faults; microsequenced CMOS model; multiular organisms; organismic activities; phosphorylation cascade; signal reception; signal transduction; Animals; Chemicals; Circuits; Clocks; Diseases; Humans; Internet; Organisms; Proteins; Semiconductor device modeling; ATP; G-protein; Systems biology; analog CMOS; phosphorylation cascade;
fLanguage
English
Publisher
ieee
Conference_Titel
Mechatronics and Machine Vision in Practice, 2008. M2VIP 2008. 15th International Conference on
Conference_Location
Auckland
Print_ISBN
978-1-4244-3779-5
Electronic_ISBN
978-0-473-13532-4
Type
conf
DOI
10.1109/MMVIP.2008.4749507
Filename
4749507
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