Title :
A mathematical formulation of DNA computation
Author :
Zhang, Mingjun ; Cheng, Maggie X. ; Tarn, Tzyh-Jong
Author_Institution :
Chem. Anal. Div., Agilent Technol., Santa Clara, CA
fDate :
3/1/2006 12:00:00 AM
Abstract :
DNA computation is to use DNA molecules for information storing and processing. The task is accomplished by encoding and interpreting DNA molecules in suspended solutions before and after the complementary binding reactions. DNA computation is attractive, due to its fast parallel information processing, remarkable energy efficiency, and high storing capacity. Challenges currently faced by DNA computation are: 1) lack of theoretical computational models for applications and 2) high error rate for implementation. This paper attempts to address these problems from mathematical modeling and genetic coding aspects. The first part of this paper presents a mathematical formulation of DNA computation. The model may serve as a theoretical framework for DNA computation. In the second part, a genetic code based DNA computation approach is presented to reduce error rate for implementation, which has been a major concern for DNA computation. The method provides a promising alternative to reduce error rate for DNA computation
Keywords :
biocomputing; encoding; energy conservation; genetic algorithms; information storage; DNA computation; complementary binding reactions; energy efficiency; error rate reduction; fast parallel information processing; genetic coding; information storing; mathematical modeling; Computational modeling; Computer applications; Concurrent computing; DNA computing; Encoding; Energy efficiency; Error analysis; Genetics; Information processing; Mathematical model; DNA computation; error rate; genetic code; mathematical formulation;
Journal_Title :
NanoBioscience, IEEE Transactions on
DOI :
10.1109/TNB.2005.864017