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A meshless, spectrally accurate, integral equation solver for molecular surface electrostatics
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ACM Journal on Emerging Technologies in Computing Systems (JETC) archive
Volume 4 ,  Issue 2  (April 2008) table of contents
Article No. 6  
Year of Publication: 2008
ISSN:1550-4832
Authors
Shih-Hsien Kuo  Massachusetts Institute of Technology, Cambridge, MA
Bruce Tidor  Massachusetts Institute of Technology, Cambridge, MA
Jacob White  Massachusetts Institute of Technology, Cambridge, MA
Publisher
ACM  New York, NY, USA
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ABSTRACT

The need to determine electrostatic fields in domains bounded by molecular surfaces arises in a number of nanotechnology applications including: biomolecule design, carbon nanotube simulation, and molecular electron transport analysis. Molecular surfaces are typically smooth, without the corners common in electrical interconnect problems, but are often so geometrically complicated that numerical evaluation of the associated electrostatic fields is extremely time-consuming. In this paper we describe and demonstrate a meshless spectrally-accurate integral equation method that only requires a description of the molecular surface in the form of a collection of surface points. Our meshless method is a synthesis of techniques, suitably adapted, including: spherical harmonic surface interpolation, spectral-element-like integral equation discretization, integral desingularization via variable transformation, and matrix-implicit iterative matrix solution. The spectral accuracy of this combined method is verified using analytically solvable sphere and ellipsoid problems, and then its accuracy and efficiency is demonstrated numerically by solving capacitance and coupled Poisson/linearized Poisson-Boltzmann problems associated with a commonly used model of a molecule in solution. The results demonstrate that for a tolerance of 10−3 this new approach reduces the number of unknowns by as much as two orders of magnitude over the more commonly used flat panel methods.


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Collaborative Colleagues:
Shih-Hsien Kuo: colleagues
Bruce Tidor: colleagues
Jacob White: colleagues