DocumentCode
2138290
Title
Application of data driven models in quantum mechanics calculations
Author
Sun, M. ; Butler, W.H.
Author_Institution
Dept. of Math., Alabama Univ., Tuscaloosa, AL, USA
fYear
2002
fDate
2002
Firstpage
426
Lastpage
430
Abstract
Minimization of the total potential energy of a system of interacting atoms is a classical challenging problem in physics. Standard quantum mechanics calculation of the total potential energy is a very time consuming task. The article reports preliminary results of our new investigation of using data driven models as a means of approximating the total system energy. Such models include feedforward artificial neural networks and linear least squares models using radial basis functions and polynomial basis functions. So far, we have considered a system of two atoms and used the two-body Lenard-Jones potential to generate training data. We have found several types of basis functions that are suitable for the approximation.
Keywords
Lennard-Jones potential; feedforward neural nets; function approximation; learning (artificial intelligence); physics computing; quantum theory; data driven models; feedforward artificial neural networks; linear least squares models; polynomial basis functions; quantum mechanics calculations; radial basis functions; total potential energy; total system energy approximation; training data; two atom system; two-body Lenard-Jones potential; Artificial neural networks; Least squares approximation; Least squares methods; Mathematics; Physics; Polynomials; Potential energy; Quantum mechanics; Sun; Training data;
fLanguage
English
Publisher
ieee
Conference_Titel
System Theory, 2002. Proceedings of the Thirty-Fourth Southeastern Symposium on
ISSN
0094-2898
Print_ISBN
0-7803-7339-1
Type
conf
DOI
10.1109/SSST.2002.1027081
Filename
1027081
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