Sourav Dutta
Sourav Dutta
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Reduced Order Modeling Using Advection-Aware Autoencoders
A novel autoencoder architecture is proposed to construct efficient reduced order models for advection-dominated PDEs. Numerical results are presented for parametric, linear and nonlinear advection-dominated problems.
Sourav Dutta
,
Peter Rivera-Casillas
,
Brent Styles
,
Matthew Farthing
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pyNIROM—A suite of python modules for non-intrusive reduced order modeling of time-dependent problems
A Python-based software package for constructing purely data-driven reduced order models of time-dependent PDEs.
Sourav Dutta
,
Peter Rivera-Casillas
,
Orie Cecil
,
Matthew Farthing
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A greedy non-intrusive reduced order model for shallow water equations
A novel reduced order model for time-dependent PDEs using proper orthogonal decomposition and radial basis function interpolation. A new greedy algorithm for optimal selection of interpolation points is also proposed. Real world examples are presented using 2D shallow water equations.
Sourav Dutta
,
Matthew Farthing
,
Emma Perracchione
,
Gaurav Savant
,
Mario Putti
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On the convergence analysis of a hybrid numerical method for multicomponent transport in porous media
Convergence analysis is performed in 1D for a hybrid numerical method that combines a discontinuous finite element method with a finite difference method to solve tow-phase, two-component flow and transport in porous media.
Prabir Daripa
,
Sourav Dutta
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Modeling and simulation of surfactant–polymer flooding using a new hybrid method
A novel hybrid numerical method for multiphase multicomponent flows in porous media using a combination of a discontinuous finite element method and a modified method of characteristics-based finite difference method. Real world numerical examples are presented for chemical enhanced oil recovery using surfactant-polymer flooding.
Prabir Daripa
,
Sourav Dutta
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