• Computational Particle Mechanics (2019).

    Abstract
    In this paper, a second order SL-PFEM scheme for solving the incompressible Navier-Stokes equations is presented. This scheme is based on the second order velocity Verlet [...]

  • Comp. Part. Mech. (2016). 4: 321-329 (preprint)

    Abstract
    The application of the semi-Lagrangian particle finite element method (SL–PFEM) for the seakeeping simulation of the wave adaptive modular vehicle under spray generating [...]

  • I. Ortigosa, J. García-Espinosa
    Brodogradnja (2015). 66 (4), 39-56

    Abstract
    The operational complexity and performance requirements of modern racing yachts demand the use of advanced applications, such as a decision support system (DSS) able to assist [...]

  • Renewable Energy (2012). 55, 69-78, 2012

    Abstract
    The new engineering FASTLognoter software is presented. This code is essentially the result of the integration of two tools, along with some additional features. Thefirst [...]

  • International journal for numerical methods in engineering (2013). 96 (4), 247-268

    Abstract
    This paper analyzes the problem arising from the need to assign information about the normal vectors to the surface at the nodes of a mesh of triangles. Meshes of triangles [...]

  • Journal of Waterway, Port, Coastal, and Ocean Engineering (2011). 138 (1), 21-29

    Abstract
    A set of numerical model experiments has been conducted to simulate the circulation driven by oscillatory forcing over a theoretical continental slope configuration used previously [...]

  • International journal for numerical methods in fluids (2008). 57 (9), 1291-1320, 2008

    Abstract
    For residual-based stabilization methods such as streamline-upwind Petrov–Galerkin (SUPG) and finite calculus (FIC), the higher-order derivatives of the residual that [...]

  • International journal for numerical methods in fluids (2007). 54 (6‐8), 609-637, 2007

    Abstract
    We present a formulation for analysis of turbulent incompressible flows using a stabilized finite element method (FEM) based on the finite calculus (FIC) procedure. The stabilization [...]

  • Journal of Computational Physics (2007). 224 (1), 332-351

    Abstract
    We present a formulation for incompressible flows analysis using the finite element method (FEM). The necessary stabilization for dealing with convective effects and the [...]

  • E. Oñate, J. García-Espinosa, S. Idelsohn, F. Pin
    Computer methods in applied mechanics and engineering (2006). 195 (23), 3001-3037

    Abstract
    We present a general formulation for incompressible fluid flow analysis using the finite element method (FEM). The standard Eulerian formulation is described first. The [...]

  • Computer Methods in Applied Mechanics and Engineering (2006). 195: 339–362

    Abstract
    A methodology for error estimation and mesh adaptation for finite element (FE) analysis of incompressible viscous flow is presented. The error estimation method is based [...]

  • Journal of Applied Mechanics (2003). 70(1): 18-26

    Abstract
    A stabilized semi-implicit fractional step algorithm based on the finite element method for solving ship wave problems using unstructured meshes is presented. The stabilized [...]

  • Comput. Methods Appl. Mech. Engrg. (2001). 191, 635-660

    Abstract
    A stabilized semi-implicit fractional step finite element method (FEM) for solving coupled fluid-structure interaction problems involving free surface waves is presented. [...]

  • Comp. Meth. App. Mech. Eng. (2015). 295, 290-304 (preprint)

    Abstract
    This paper shows the recent work of the authors in the development of a time-domain FEM model for evaluation of the seal dynamics of a surface effect ship. The fluid solver [...]

  • Ocean Engineering (2016). 123, 383-396 (preprint)

    Abstract
    The aim of this work is to carry out numerical simulations in the time domain of seakeeping problems taking into account internal flow in tanks, including sloshing. To this [...]

  • Ships and Offshore Structures (2015). 11:5, 471-481 (preprint)

    Abstract
    This work presents the development of two free Graphical User Interfaces (GUI), called ''FASTLognoter'' and ''MorisonForm'', both focused on [...]

  • J. García-Espinosa, I. Ortigosa, A. Fernández
    Rev. int. métodos numér. cálc. diseño ing. (2015). Vol. 31, (3)

    Abstract
    In this paper, the conception and design of a new monitoring system for a racing yachts rig is presented. The sensors developed are able to process the measured strain data, [...]

  • Journal of Computational Physics (2013). 252:382-403 (preprint)

    Abstract
    Being capable of predicting seakeeping capabilities in the time domain is of great interest for the marine and offshore industry. However, most computer programs used in the [...]

  • Ships and offshore structures (2018). 14:2, 153-164 (preprint)

    Abstract
    In this work a finite element method (FEM) is proposed to solve the problem of estimating the added resistance of a ship in waves in the time domain and using unstructured [...]

  • Int. J. for Num. Meths. in Fluids (1997). Vol. 25, pp. 1387-1407

    Abstract
    In a previous paper a general procedure for deriving stabilized finite element schemes for advective type problems based on invoking higher order balance laws over finite [...]

  • Int. J. Numer. Meth. Engng. (2011). Vol. 86 (1), pp. 18-46

    Abstract
    We propose a fourth‐order compact scheme on structured meshes for the Helmholtz equation given by R(φ):=f(x)+Δφ+ξ2φ=0. The scheme consists of taking [...]

  • Comput. Methods Appl. Mech. Engrg., (2006). Vol. 195, pp. 339-362

    Abstract
    A methodology for error estimation and mesh adaptation for finite element (FE) analysis of incompressible viscous flow is presented. The error estimation method is based on [...]

  • Int. J. Numer. Meth. Engng. (2008). Vol 76 (9), pp. 1297-1327

    Abstract
    This paper introduces a new stabilized finite element method based on the finite calculus (Comput. Methods Appl. Mech. Eng. 1998; 151:233–267) and arbitrary [...]

  • Computational Mechanics (2006). Vol. 38 (4-5), pp. 440-455

    Abstract
    We present a general formulation for incompressible fluid flow analysis using the finite element method. The necessary stabilization for dealing with convective effects and [...]

  • Int. J. Numer. Meth. Engng. (2012). Vol. 89 (11), pp. 1367-1391

    Abstract
    A new Petrov–Galerkin (PG) method involving two parameters, namely α1 and α2, is presented, which yields the following schemes on rectangular [...]

  • Int. J. Numer. Meth. Engng. (2010). Vol. 199, pp. 525–546

    Abstract
    We present the design of a high-resolution Petrov–Galerkin (HRPG) method using linear finite elements for the problem defined by the residual R (phi):= partial phi [...]

  • Comput. Methods Appl. Mech. Engrg., (2012). Vol. 213-216, pp. 327-352

    Abstract
    A multidimensional extension of the HRPG method using the lowest order block finite elements is presented. First, we design a nondimensional element number that quantifies [...]

  • Int. J. Numer. Meth. Fluids (2010). Vol. 65 (1-3), pp. 106-134

    Abstract
    We present a collection of stabilized finite element (FE) methods derived via first‐ and second‐order finite calculus (FIC) procedures. It is shown that several well known [...]

  • Marine Structures (2016). Vol. 49 pp. 116-137 49, 116-137 (preprint)

    Abstract
    The complexity of the dynamic behaviour of offshore marine structures requires advanced simulations tools for the accurate assessment of the seakeeping behaviour of these [...]

  • Computers and Structures (2016). 117, 126-140 (preprint)

    Abstract
    We propose here a numerical model for a three-dimensional simulation of glass forming processes. Using the basic philosophy of the Particle Finite Element method (PFEM), we [...]

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