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Dive into the research topics where Jacob Sterbenz is active.

Publication


Featured researches published by Jacob Sterbenz.


Communications in Mathematical Physics | 2010

Regularity of Wave-Maps in Dimension 2 + 1

Jacob Sterbenz; Daniel Tataru

In this article we prove a Sacks-Uhlenbeck/Struwe type global regularity result for wave-maps


International Mathematics Research Notices | 2005

Angular regularity and Strichartz estimates for the wave equation

Jacob Sterbenz


Communications in Mathematical Physics | 2010

Energy Dispersed Large Data Wave Maps in 2 + 1 Dimensions

Jacob Sterbenz; Daniel Tataru

{\Phi:\mathbb{R}^{2+1} \to\mathcal{M} }


Duke Mathematical Journal | 2015

Global Well-Posedness For The Maxwell-Klein-Gordon Equation In 4+1 Dimensions: Small Energy

Joachim Krieger; Jacob Sterbenz; Daniel Tataru


arXiv: Analysis of PDEs | 2010

Global stability for charged-scalar fields on Minkowski space

Hans Lindblad; Jacob Sterbenz

into general compact target manifolds


Annals of Mathematics | 2010

On the formation of singularities in the critical O(3) s-model

Igor Rodnianski; Jacob Sterbenz


Communications in Mathematical Physics | 2006

Uniform Decay of Local Energy and the Semi-Linear Wave Equation on Schwarzschild Space

Pieter Blue; Jacob Sterbenz

{\mathcal{M} }


Memoirs of the American Mathematical Society | 2012

Global Regularity for the Yang-Mills Equations on High Dimensional Minkowski Space

Joachim Krieger; Jacob Sterbenz


Mathematical Research Letters | 2006

An Endpoint

John J. Benedetto; Wojciech Czaja; Alexander M. Powell; Jacob Sterbenz

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International Mathematics Research Notices | 2014

(1,\infty)

Jacob Sterbenz; Daniel Tataru

We prove here essentially sharp linear and bilinear Strichartz type estimates for the wave equations on Minkowski space, where we assume the initial data possesses additional regularity with respect to fractional powers of the usual angular momentum operators. In this setting, the range of (q,r) exponents vastly improves over what is available for the wave equations based on translation invariant derivatives of the initial data and the dispersive inequality. Two proofs of this result are given.

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Daniel Tataru

University of California

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Joachim Krieger

École Polytechnique Fédérale de Lausanne

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Hans Lindblad

University of California

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Jason Metcalfe

University of North Carolina at Chapel Hill

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Pieter Blue

University of Edinburgh

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