SBIR-STTR Award

Computational Prediction of Kinetic Rate Constants
Award last edited on: 4/7/2010

Sponsored Program
STTR
Awarding Agency
DOD : AF
Total Award Amount
$349,988
Award Phase
2
Solicitation Topic Code
AF05-T010
Principal Investigator
Rodney J Bartlett

Company Information

ACES QC LC

1421 NW 47th Terrace
Gainesville, FL 32605
   (352) 377-8257
   bartlett@qtp.ufl.edu
   www.acesqc.com

Research Institution

----------

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2005
Phase I Amount
$99,988
This proposal addresses AFOSR's task to: "Develop seamless, easy to use, efficient code to calcultate electronic wave functions and potential energy surfaces of molecules and predict kinetic rate constants for reactions a priori." This is a long-unsolved problem, fundamental to chemistry, where quantum chemical methods must be extremely accurate to provide the electronic structure information and the subsequent kinetics approach must be able to preserve that accuracy to yield reliable rate constants. Yet unlike molecular structure and spectra, where computational chemistry has an enormous impact; there is no similar, systematized and calibrated user friendly software available to reliably describe the kinetics aspect of chemistry. To address this problem, we bring together the small business, ACES QC, which has had notable successes in determining rate constants for several atom systems, using coupled-cluster and the ACES II program system; with components of the University of Florida's Quantum Theory Project; and HyperCube, whose widely used HyperChem program offers the tools and ease of use to begin to systematize the computational chemistry kinetics problem to compliment that for structure and spectra; and the guidance of the prominent atmospheric kinetics group at the University of Michigan

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2007
Phase II Amount
$250,000
This STTR phase II proposal addresses AFOSR's task to: "Develop seamless, easy to use, efficient code to calculate electronic wave functions and potential energy surfaces of molecules and predict kinetic rate constants for reactions a priori." This is a long-unsolved problem, fundamental to chemistry, where quantum chemical methods must be extremely accurate to yield reliable rate constants. Yet unlike molecular structure and spectra, where computational chemistry has had an enormous impact; there is no similar, systematized and calibrated user friendly software available to reliably describe the kinetics aspect of chemistry. To address this problem, we bring together the small business, ACES QC, which has had notable successes in determining gas phase rate constants for several atom systems, using coupled-cluster and the ACES program system; with components of the University of Florida's Quantum Theory Project; and HyperCube, whose widely used HyperChem program offers the tools and ease of use to begin to systematize the computational chemistry kinetics problem to complement that for structure and spectra; and the guidance of the prominent atmospheric kinetics group at the University of Michigan.

Keywords:
Thermal Rate Constants, Electronic Structure Theory, Quantum Chemistry, Kinetics, Atmospheric Models