activity
20122022
most citedOn quadrature rules for solving Partial Differential Equations using Neural Networks

42 citations · 124 across the 12 of their papers we have counts for

collaborators

13 papers

math.NA2022★ 19 cited

A Deep Double Ritz Method (DRM) for solving Partial Differential Equations using Neural Networks

Carlos Uriarte, David Pardo, Ignacio Muga +1

Residual minimization is a widely used technique for solving Partial Differential Equations in variational form. It minimizes the dual norm of the residual, which naturally yields…

math.NA2022★ 1 cited

Adaptive Deep Learning Method for Solving Partial Differential Equations

Ángel J. Omella, David Pardo

We introduce an adaptive algorithm to solve Partial Differential Equations using a Deep Neural Network. The proposed method restricts to tensor product meshes and optimizes the…

math.NA2021★ 42 cited

On quadrature rules for solving Partial Differential Equations using Neural Networks

Jon A. Rivera, Jamie M. Taylor, Ángel J. Omella +1

Neural Networks have been widely used to solve Partial Differential Equations. These methods require to approximate definite integrals using quadrature rules. Here, we illustrate v…

math.NA2020★ 5 cited

Refined isogeometric analysis for generalized Hermitian eigenproblems

Ali Hashemian, David Pardo, Victor M. Calo

We use the refined isogeometric analysis (rIGA) to solve generalized Hermitian eigenproblems . The rIGA framework conserves the desirable properties of maximum-continui…

math.NA2020★ 17 cited

Goal-oriented adaptivity for a conforming residual minimization method in a dual discontinuous Galerkin norm

Sergio Rojas, David Pardo, Pouria Behnoudfar +1

We propose a goal-oriented mesh-adaptive algorithm for a finite element method stabilized via residual minimization on dual discontinuous-Galerkin norms. By solving a saddle-point…

physics.geo-ph2020

Error Control and Loss Functions for the Deep Learning Inversion of Borehole Resistivity Measurements

M. Shahriari, D. Pardo, J. A. Rivera +5

Deep learning (DL) is a numerical method that approximates functions. Recently, its use has become attractive for the simulation and inversion of multiple problems in computational…

eess.SP2020★ 23 cited

Modeling extra-deep electromagnetic logs using a deep neural network

Sergey Alyaev, Mostafa Shahriari, David Pardo +4

Modern geosteering is heavily dependent on real-time interpretation of deep electromagnetic (EM) measurements. We present a methodology to construct a deep neural network (DNN) mod…

cs.LG2018★ 3 cited

A Deep Learning Approach to the Inversion of Borehole Resistivity Measurements

M. Shahriari, D. Pardo, A. Picón +3

We use borehole resistivity measurements to map the electrical properties of the subsurface and to increase the productivity of a reservoir. When used for geosteering purposes, it…

math.NA2018

Variational Formulations for Explicit Runge-Kutta Methods

Judit Muñoz-Matute, David Pardo, Victor M. Calo +1

Variational space-time formulations for Partial Differential Equations have been of great interest in the last decades. While it is known that implicit time marching schemes have v…

physics.optics2015★ 7 cited

Fourier finite element modeling of light emission in waveguides: 2.5-dimensional FEM approach

Yangxin Ou, David Pardo, Yuntian Chen

We present a Fourier finite element modeling of light emission of dipolar emitters coupled to infinitely long waveguides. Due to the translational symmetry, the three-dimensional (…

math.NA2012★ 2 cited

A direct solver with reutilization of previously-computed LU factorizations for h-adaptive finite element grids with point singularities

Maciej Paszynski, Victor Calo, David Pardo

This paper describes a direct solver algorithm for a sequence of finite element meshes that are h-refined towards one or several point singularities. For such a sequence of grids,…

math.NA2012★ 3 cited

The cost of continuity: performance of iterative solvers on isogeometric finite elements

Nathan Collier, Lisandro Dalcin, David Pardo +1

In this paper we study how the use of a more continuous set of basis functions affects the cost of solving systems of linear equations resulting from a discretized Galerkin weak fo…

math.NA2012★ 2 cited

Computational complexity and memory usage for multi-frontal direct solvers in structured mesh finite elements

Nathan Collier, David Pardo, Maciej Paszynski +1

The multi-frontal direct solver is the state-of-the-art algorithm for the direct solution of sparse linear systems. This paper provides computational complexity and memory usage es…