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Bernardo M. Rocha
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2020 – today
- 2024
- [j16]P. C. R. Oviedo, M. T. Magalhães, Bernardo M. Rocha
, Rafael A. B. de Queiroz:
A bounded scheme based on Bézier curves for convection-dominated transport problems. J. Comput. Appl. Math. 437: 115502 (2024) - [j15]Noemi Zeraick Monteiro
A novel second-order ADI Scheme for solving epidemic models with cross-diffusion. J. Comput. Sci. 81: 102341 (2024) - [c20]Lucas Marins Ramalho de Lima
MonoWeb: Cardiac Electrophysiology Web Simulator. ICCS (4) 2024: 147-154 - 2023
- [j14]João R. Alves, Lucas A. Berg
A Hybrid Model for Cardiac Perfusion: Coupling a Discrete Coronary Arterial Tree Model with a Continuous Porous-Media Flow Model of the Myocardium. Entropy 25(8): 1229 (2023) - [j13]Joventino Oliveira Campos, Rafael Moreira Guedes, Yan Barbosa Werneck, Luis Paulo S. Barra, Rodrigo Weber dos Santos, Bernardo M. Rocha
Polynomial chaos expansion surrogate modeling of passive cardiac mechanics using the Holzapfel-Ogden constitutive model. J. Comput. Sci. 71: 102039 (2023) - [c19]Yan Barbosa Werneck, Rodrigo Weber dos Santos
Replacing the FitzHugh-Nagumo Electrophysiology Model by Physics-Informed Neural Networks. ICCS (2) 2023: 699-713 - [c18]Thaís de Jesus Soares, João Pedro Banhato Pereira
Studying Arrhythmic Risk with In-Silico Programmed Ventricular Stimulation and Patient-Specific Computational Models. ICCSA (Workshops 9) 2023: 41-51 - [c17]Alexandre Bittencourt Pigozzo, Rodrigo Weber dos Santos
Sensitivity Analysis of a Cardiac Electrophysiology Model for the Occurrence of Electrical Alternans. ICCSA (Workshops 1) 2023: 44-58 - [c16]Guilherme Martins Couto
Accelerating the Simulations of Cardiac Arrhythmia with a Second-Order Numerical Method and High-Performance Computing. ICCSA (Workshops 9) 2023: 103-113 - 2022
- [j12]Emmanuel Y. Medina, Elson Magalhães Toledo, Iury Igreja
A stabilized hybrid discontinuous Galerkin method for the Cahn-Hilliard equation. J. Comput. Appl. Math. 406: 114025 (2022) - [j11]Carolina Ribeiro Xavier
Timing the race of vaccination, new variants, and relaxing restrictions during COVID-19 pandemic. J. Comput. Sci. 61: 101660 (2022) - [j10]Nicolás A. Barnafi
Finite Element Methods for Large-Strain Poroelasticity/Chemotaxis Models Simulating the Formation of Myocardial Oedema. J. Sci. Comput. 92(3): 92 (2022) - [c15]Gabriel Brandão de Miranda
Characterization of Foam-Assisted Water-Gas Flow via Inverse Uncertainty Quantification Techniques. ICCS (4) 2022: 310-322 - [c14]Evandro Dias Gaio
Modeling Contrast Perfusion and Adsorption Phenomena in the Human Left Ventricle. ICCS (1) 2022: 455-468 - [c13]Berilo de Oliveira Santos
Forward Uncertainty Quantification and Sensitivity Analysis of the Holzapfel-Ogden Model for the Left Ventricular Passive Mechanics. ICCS (4) 2022: 749-761 - 2021
- [c12]Rafael Sachetto Oliveira
How Fast Vaccination Can Control the COVID-19 Pandemic in Brazil? ICCS (2) 2021: 497-510 - [i1]Nicolás A. Barnafi, Bryan Gomez-Vargas, Wesley de Jesus Lourenço, Ruy Freitas Reis, Bernardo Martins Rocha, Marcelo Lobosco, Ricardo Ruiz-Baier, Rodrigo Weber dos Santos:
Mixed methods for large-strain poroelasticity/chemotaxis models simulating the formation of myocardial oedema. CoRR abs/2111.04206 (2021)
2010 – 2019
- 2019
- [j9]Ruy Freitas Reis
A personalized computational model of edema formation in myocarditis based on long-axis biventricular MRI images. BMC Bioinform. 20-S(6): 532 (2019) - [j8]Ruy Freitas Reis
On the mathematical modeling of inflammatory edema formation. Comput. Math. Appl. 78(9): 2994-3006 (2019) - [c11]Gustavo Montes Novaes
Combining Polynomial Chaos Expansions and Genetic Algorithm for the Coupling of Electrophysiological Models. ICCS (3) 2019: 116-129 - [c10]Cesar Augusto Conopoima, Bernardo Martins Rocha, Iury Igreja
Stabilized Variational Formulation for Solving Cell Response to Applied Electric Field. ICCS (5) 2019: 627-634 - 2018
- [j7]Jesuliana N. Ulysses
An Optimization-Based Algorithm for the Construction of Cardiac Purkinje Network Models. IEEE Trans. Biomed. Eng. 65(12): 2760-2768 (2018) - [c9]Ruy Freitas Reis
An Hydro-Mechanical Model of Edema Formation Applied to Bacterial Myocarditis. BIBM 2018: 1418-1424 - [c8]Marcelo Lobosco
Design and Analysis of an Undergraduate Computational Engineering Degree at Federal University of Juiz de Fora. ICCS (3) 2018: 293-303 - 2017
- [j6]Ricardo Silva Campos, Bernardo Martins Rocha, Marcelo Lobosco
Multilevel parallelism scheme in a genetic algorithm applied to cardiac models with mass-spring systems. J. Supercomput. 73(2): 609-623 (2017) - 2016
- [j5]Joventino Oliveira Campos, Rafael Sachetto Oliveira
Lattice Boltzmann method for parallel simulations of cardiac electrophysiology using GPUs. J. Comput. Appl. Math. 295: 70-82 (2016) - [c7]Rafael Sachetto Oliveira
Simulations of Cardiac Electrophysiology Combining GPU and Adaptive Mesh Refinement Algorithms. IWBBIO 2016: 322-334 - 2015
- [j4]Johnny Moreira Gomes, Adriele Alvarenga, Ricardo Silva Campos, Bernardo Martins Rocha, Ana Paula Couto da Silva
Uniformization Method for Solving Cardiac Electrophysiology Models Based on the Markov-Chain Formulation. IEEE Trans. Biomed. Eng. 62(2): 600-608 (2015) - [c6]Ricardo Silva Campos, Bernardo Martins Rocha, Luis Paulo da Silva Barra, Marcelo Lobosco
A Parallel Genetic Algorithm to Adjust a Cardiac Model Based on Cellular Automaton and Mass-Spring Systems. PaCT 2015: 149-163 - 2013
- [c5]Caroline Mendonça Costa, Elena Hoetzl, Bernardo Martins Rocha, Anton J. Prassl, Gernot Plank:
Automatic Parametrization Strategy for Cardiac Electrophysiology Simulations. CinC 2013: 373-376 - [c4]Ricardo Silva Campos, Ronan Mendonça Amorim, Bernardo Lino de Oliveira, Bernardo Martins Rocha, Joakim Sundnes, Luis Paulo da Silva Barra, Marcelo Lobosco, Rodrigo Weber dos Santos:
3D Heart Modeling with Cellular Automata, Mass-Spring System and CUDA. PaCT 2013: 296-309 - 2012
- [j3]Rafael Sachetto Oliveira
A parallel accelerated adaptive mesh algorithm for the solution of electrical models of the heart. Int. J. High Perform. Syst. Archit. 4(2): 89-100 (2012) - [c3]Rafael Sachetto Oliveira
An Adaptive Mesh Algorithm for the Numerical Solution of Electrical Models of the Heart. ICCSA (1) 2012: 649-664 - 2011
- [j2]Bernardo M. Rocha, Fernando Otaviano Campos, Ronan Mendonça Amorim, Gernot Plank
Accelerating cardiac excitation spread simulations using graphics processing units. Concurr. Comput. Pract. Exp. 23(7): 708-720 (2011) - [j1]Bernardo M. Rocha, Ferdinand Kickinger, Anton J. Prassl
A Macro Finite-Element Formulation for Cardiac Electrophysiology Simulations Using Hybrid Unstructured Grids. IEEE Trans. Biomed. Eng. 58(4): 1055-1065 (2011) - [c2]Rafael Sachetto Oliveira
Comparing CUDA, OpenCL and OpenGL Implementations of the Cardiac Monodomain Equations. PPAM (2) 2011: 111-120
2000 – 2009
- 2009
- [c1]Bernardo M. Rocha, Fernando Otaviano Campos, Gernot Plank
Simulations of the Electrical Activity in the Heart with Graphic Processing Units. PPAM (1) 2009: 439-448
Coauthor Index
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