Solving for Micro- and Macro- Scale Electrostatic Configurations Using the Robin Hood Algorithm

Formaggio, J. A.; Lazić, Predrag; Corona, T.J.; Štefančić, Hrvoje; Abraham, Hrvoje; Glück, F.

doi:10.48550/arxiv.1111.5035

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2011

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“…Our results show that the electron transparency of the mesh is very sensitive to its detailed geometry, while the gain depends only on the bulk properties of the system. The RH Solver is easily adaptable for a parallel computing environment, or using graphics processors in order to achieve faster calculations for even more detailed geometries [19]. Figure 13.…”

Section: Discussionmentioning

confidence: 99%

New approach to 3D electrostatic calculations for micro-pattern detectors

et al. 2011

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We demonstrate practically approximation-free electrostatic calculations of micromesh detectors that can be extended to any other type of micropattern detectors. Using newly developed Boundary Element Method called Robin Hood Method we can easily handle objects with huge number of boundary elements (hundreds of thousands) without any compromise in numerical accuracy. In this paper we show how such calculations can be applied to Micromegas detectors by comparing electron transparencies and gains for four different types of meshes. We demonstrate inclusion of dielectric material by calculating the electric field around different types of dielectric spacers.

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Section: Discussionmentioning

confidence: 99%