AbstractIn this work we propose an extension of the algebraic formulation for the Tau method for the numerical solution of partial differential problems set on domains in Rn,n>2. This extension is based on an appropriate choice of a basis for the space of polynomials in Rn and on the construction of the algebraic equivalent representation of the problem. Another feature of this implementation is related to the solution procedure for the necessarily large dimensional linear systems involved. We developed for this purpose an adapted LU factorization with a special pivoting strategy to build approximants in the sense of Tau method and to allow the solution of large problems.Numerical results for differential problems in 2D and 2D will be shown
AbstractIn this paper we characterise the weighting subspaces associated with two approximation tech...
AbstractWe discuss a direct formulation of the Tau Method in two dimensions which differs radically ...
The Tau method is a highly accurate technique that approximates differential equations efficiently. ...
AbstractIn this work we propose an extension of the algebraic formulation for the Tau method for the...
AbstractIn this study, we improve the algebraic formulation of the fractional partial differential e...
AbstractThe tau method approximates the solution of a differential equation with a polynomial, which...
AbstractThe ability of a recent formulation of the Tau method of Ortiz and Samara to give approximat...
AbstractThis paper reports numerical experiments on the implementation of the operational formulatio...
AbstractWe discuss the numerical solution of linear partial differential equations with variable coe...
AbstractOrtiz and Samara's operational approach to the Tau Method is extended to the numerical solut...
AbstractIn this study, we improve the algebraic formulation of the fractional partial differential e...
AbstractA modification of the Lanczos Tau Method for the approximate solution of second-order differ...
AbstractIn this paper, we show the full equivalence between the recursive [1] and operational [2] fo...
AbstractWe discuss a direct formulation of the Tau Method in two dimensions which differs radically ...
AbstractThe ability of a recent formulation of the Tau method of Ortiz and Samara to give approximat...
AbstractIn this paper we characterise the weighting subspaces associated with two approximation tech...
AbstractWe discuss a direct formulation of the Tau Method in two dimensions which differs radically ...
The Tau method is a highly accurate technique that approximates differential equations efficiently. ...
AbstractIn this work we propose an extension of the algebraic formulation for the Tau method for the...
AbstractIn this study, we improve the algebraic formulation of the fractional partial differential e...
AbstractThe tau method approximates the solution of a differential equation with a polynomial, which...
AbstractThe ability of a recent formulation of the Tau method of Ortiz and Samara to give approximat...
AbstractThis paper reports numerical experiments on the implementation of the operational formulatio...
AbstractWe discuss the numerical solution of linear partial differential equations with variable coe...
AbstractOrtiz and Samara's operational approach to the Tau Method is extended to the numerical solut...
AbstractIn this study, we improve the algebraic formulation of the fractional partial differential e...
AbstractA modification of the Lanczos Tau Method for the approximate solution of second-order differ...
AbstractIn this paper, we show the full equivalence between the recursive [1] and operational [2] fo...
AbstractWe discuss a direct formulation of the Tau Method in two dimensions which differs radically ...
AbstractThe ability of a recent formulation of the Tau method of Ortiz and Samara to give approximat...
AbstractIn this paper we characterise the weighting subspaces associated with two approximation tech...
AbstractWe discuss a direct formulation of the Tau Method in two dimensions which differs radically ...
The Tau method is a highly accurate technique that approximates differential equations efficiently. ...