Probing infinity in bounded two-dimensional electrostatic systems

The total electrostatic energy of systems of identical particles of equal charge is studied in configurations bounded in space, but divergent in the number of charges. This approach shall guide us to unveil a non-linear, functional form specifying the divergent nature of system energy. We consider f...

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Main Authors: Abutalib, M., Batle, J., Raymond Ooi, C.H.
Format: Article
Published: American Institute of Physics 2016
Subjects:
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author Abutalib, M.
Batle, J.
Raymond Ooi, C.H.
author_facet Abutalib, M.
Batle, J.
Raymond Ooi, C.H.
author_sort Abutalib, M.
collection UM
description The total electrostatic energy of systems of identical particles of equal charge is studied in configurations bounded in space, but divergent in the number of charges. This approach shall guide us to unveil a non-linear, functional form specifying the divergent nature of system energy. We consider fractals to be physical entities, with charges located in their vertices or nodes. This description is interesting since features, such as the corresponding fractal dimension, can characterize the total energy EN. Finally, at local length scales, we describe how energy diverges at charge accumulation points in the fractal, that is, almost everywhere by definition.
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spelling um.eprints-180392017-10-23T02:17:56Z http://eprints.um.edu.my/18039/ Probing infinity in bounded two-dimensional electrostatic systems Abutalib, M. Batle, J. Raymond Ooi, C.H. QC Physics The total electrostatic energy of systems of identical particles of equal charge is studied in configurations bounded in space, but divergent in the number of charges. This approach shall guide us to unveil a non-linear, functional form specifying the divergent nature of system energy. We consider fractals to be physical entities, with charges located in their vertices or nodes. This description is interesting since features, such as the corresponding fractal dimension, can characterize the total energy EN. Finally, at local length scales, we describe how energy diverges at charge accumulation points in the fractal, that is, almost everywhere by definition. American Institute of Physics 2016 Article PeerReviewed Abutalib, M. and Batle, J. and Raymond Ooi, C.H. (2016) Probing infinity in bounded two-dimensional electrostatic systems. Chaos, 26 (7). 073113. ISSN 1054-1500, DOI https://doi.org/10.1063/1.4959138 <https://doi.org/10.1063/1.4959138>. http://dx.doi.org/10.1063/1.4959138 doi:10.1063/1.4959138
spellingShingle QC Physics
Abutalib, M.
Batle, J.
Raymond Ooi, C.H.
Probing infinity in bounded two-dimensional electrostatic systems
title Probing infinity in bounded two-dimensional electrostatic systems
title_full Probing infinity in bounded two-dimensional electrostatic systems
title_fullStr Probing infinity in bounded two-dimensional electrostatic systems
title_full_unstemmed Probing infinity in bounded two-dimensional electrostatic systems
title_short Probing infinity in bounded two-dimensional electrostatic systems
title_sort probing infinity in bounded two dimensional electrostatic systems
topic QC Physics
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AT batlej probinginfinityinboundedtwodimensionalelectrostaticsystems
AT raymondooich probinginfinityinboundedtwodimensionalelectrostaticsystems