BEM++

BEM++ is a modern open-source C++/Python boundary element library. Its development is a joint project between University College London (UCL), the University of Reading and the University of Durham. The main coding team is located at UCL and consists of Simon Arridge, Timo Betcke, Richard James, Nicolas Salles, Martin Schweiger and Wojciech Śmigaj.


References in zbMATH (referenced in 56 articles )

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  1. Arens, Tilo; Griesmaier, Roland; Knöller, Marvin: Maximizing the electromagnetic chirality of thin dielectric tubes (2021)
  2. Borkowski, Mariusz; Moldovan, Ionuţ Dragoş: Direct boundary method toolbox for some elliptic problems in FreeHyTE framework (2021)
  3. Capdeboscq, Yves; Griesmaier, Roland; Knöller, Marvin: An asymptotic representation formula for scattering by thin tubular structures and an application in inverse scattering (2021)
  4. Chandler-Wilde, Simon N.; Hewett, David P.; Moiola, Andrea; Besson, Jeanne: Boundary element methods for acoustic scattering by fractal screens (2021)
  5. Roddick, Greg: Computation of scattering matrices and their derivatives for waveguides (2021)
  6. Tingyu Wang, Rio Yokota, Lorena A. Barba: ExaFMM: a high-performance fast multipole method library with C++ and Python interfaces (2021) not zbMATH
  7. Arens, Tilo; Ji, Xia; Liu, Xiaodong: Inverse electromagnetic obstacle scattering problems with multi-frequency sparse backscattering far field data (2020)
  8. Betcke, Timo; Scroggs, Matthew W.; Śmigaj, Wojciech: Product algebras for Galerkin discretisations of boundary integral operators and their applications (2020)
  9. Escapil-Inchauspé, Paul; Jerez-Hanckes, Carlos: Helmholtz scattering by random domains: first-order sparse boundary element approximation (2020)
  10. Fierro, Ignacia; Jerez-Hanckes, Carlos: Fast Calderón preconditioning for Helmholtz boundary integral equations (2020)
  11. Hagemann, Felix; Hettlich, Frank: Application of the second domain derivative in inverse electromagnetic scattering (2020)
  12. Holzmann, Markus; Unger, Gerhard: Boundary integral formulations of eigenvalue problems for elliptic differential operators with singular interactions and their numerical approximation by boundary element methods (2020)
  13. Lu, Ding: Nonlinear eigenvector methods for convex minimization over the numerical range (2020)
  14. Mascotto, Lorenzo; Melenk, Jens M.; Perugia, Ilaria; Rieder, Alexander: FEM-BEM mortar coupling for the Helmholtz problem in three dimensions (2020)
  15. Stevenson, Rob; van Venetië, Raymond: Uniform preconditioners for problems of positive order (2020)
  16. Bespalov, Alex; Betcke, Timo; Haberl, Alexander; Praetorius, Dirk: Adaptive BEM with optimal convergence rates for the Helmholtz equation (2019)
  17. Betcke, Timo; Burman, Erik; Scroggs, Matthew W.: Boundary element methods with weakly imposed boundary conditions (2019)
  18. Betcke, Timo; Haberl, Alexander; Praetorius, Dirk: Adaptive boundary element methods for the computation of the electrostatic capacity on complex polyhedra (2019)
  19. Führer, Thomas; Haberl, Alexander; Praetorius, Dirk; Schimanko, Stefan: Adaptive BEM with inexact PCG solver yields almost optimal computational costs (2019)
  20. Galkowski, Jeffrey; Müller, Eike H.; Spence, Euan A.: Wavenumber-explicit analysis for the Helmholtz (h)-BEM: error estimates and iteration counts for the Dirichlet problem (2019)

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