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Chemical engineering / Chemical reactions / Catalysis / Reaction mechanism / Molecularity / Reaction rate / Autocatalytic reaction / Law of mass action / DNA / Chemistry / Physical chemistry / Chemical kinetics


DNA as a universal substrate for chemical kinetics David Soloveichika,1, Georg Seeliga,b,1, and Erik Winfreec,1 a Department of Computer Science and Engineering, University of Washington, Seattle, WA 98195; bDepartment o
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Document Date: 2010-03-04 21:35:54


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Moscow / Pasadena / Boston / New York / Manchester / La Jolla / Berlin / Cambridge / London / /

Company

Oxford Univ Press / Neural Systems / Neural Information Processing Systems / Gartner / MIT Press / Nat Comp / ACS / Manchester Univ Press / Reynaldo LP / Volterra / Nonlinear Systems / Biochemical Systems / /

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Facility

University of California San Diego / Prentice Hall / University of Washington / California Institute of Technology / /

IndustryTerm

genetic regulatory networks / target reaction network / arbitrary chemical reaction equations / chemical synthesis pathways / chemical equations / chemical systems / biological and nonbiological chemical systems / inappropriate computing models / arbitrary systems / chemical system / chemical logic circuit responding / molecular and chemical systems / software tools / chemical subsystems / chemical reaction networks / reaction networks / chemical dynamics / control non-nucleic-acid systems / supply energy / model chemical experiments / coupled chemical kinetics / nucleic-acid systems / chemical steps / chemical oscillator / characterized strand displacement systems / formal chemical reaction equations / particular molecular systems / construction to more complex systems / molecular systems / chemical diode / energy / chemical and biological engineering / real chemical systems / transcription networks / coupled chemical equations / chemical reactions / computational systems / chemical oscillator example / cell-free enzyme systems / formal chemical system / arbitrary reaction-diffusion systems / chemical properties / synthetic chemical circuits / formal chemical reaction system / real chemical reaction / finite stochastic chemical reaction networks / important chemical behaviors / synthetic peptide network / hybridization energy / chemical reaction kinetics / strand displacement systems / chemical kinetics / computing / chemical substrate / coupled chemical reactions / /

Organization

California Institute of Technology / IFIP International Federation for Information Processing / National Science Foundation / MIT / Department of Computer Science and Engineering / Association for Computing Machinery / University of Washington / Seattle / University of California San Diego / /

Person

Georg Seeliga / David Soloveichika / José N. Onuchic / Erik Winfreec / /

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Position

General / engineer / Author / /

Product

M-16 / /

ProgrammingLanguage

C / J / /

ProvinceOrState

New York / Washington / California / /

PublishedMedium

Lecture Notes in Computer Science / /

Technology

hybridization / thermodynamics / Neural Network / simulation / DNA hybridization / /

URL

www.pnas.org/cgi/doi/10.1073/pnas.0909380107 / www.pnas.org/cgi/content/full / /

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