activity
19992004
most citedGlobal existence for Dirichlet-wave equations with quadratic nonlinearties in high dimensions

2 citations · 3 across the 4 of their papers we have counts for

collaborators

16 papers

math.AP2004

Nonlinear hyperbolic equations in infinite homogeneous waveguides

Jason Metcalfe, Christopher D. Sogge, Ann Stewart

In this paper we prove global and almost global existence theorems for nonlinear wave equations with quadratic nonlinearities in infinite homogeneous waveguides. We can handle both…

math.AP2004

Global existence of solutions to multiple speed systems of quasilinear wave equations in exterior domains

Jason Metcalfe, Makoto Nakamura, Christopher D. Sogge

In this paper we prove global existence for certain multispeed Dirichlet-wave equations with quadratic nonlinearities outside of obstacles. We assume the natural null condition for…

math.AP20042 cited

Global existence for Dirichlet-wave equations with quadratic nonlinearties in high dimensions

Jason Metcalfe, Christopher D. Sogge

We prove global existence of solutions to quasilinear wave equations with quadratic nonlinearities exterior to nontrapping obstacles in spatial dimensions four and higher. This gen…

math.AP20031 cited

Estimates for the Dirichlet-wave equation and applications to nonlinear wave equations

Christopher D. Sogge

In this article we shall go over recent work in proving dispersive and Strichartz estimates for the Dirichlet-wave equation. We shall discuss applications to existence questions ou…

math.AP2002

Eigenfunction and Bochner Riesz estimates on manifolds with boundary

Christopher D. Sogge

The purpose of this paper is to give a simple proof of sharp estimates for the eigenfunctions of the Dirichlet Laplacian on smooth compact Riemannian manifolds o…

math.AP2002

Global existence for nonlinear wave equations with multiple speeds

Christopher D. Sogge

We shall be concerned with the Cauchy problem for quasilinear systems in three space dimensions of the form \label{i.1} \partial^2_tu^I-c^2_IΔu^I = C^{IJK}_{abc}\partial_c u^J\part…