eBook ISBN:  9781470404147 
Product Code:  MEMO/172/813.E 
List Price:  $60.00 
MAA Member Price:  $54.00 
AMS Member Price:  $36.00 
eBook ISBN:  9781470404147 
Product Code:  MEMO/172/813.E 
List Price:  $60.00 
MAA Member Price:  $54.00 
AMS Member Price:  $36.00 

Book DetailsMemoirs of the American Mathematical SocietyVolume: 172; 2004; 84 ppMSC: Primary 35; 83
We demonstrate the consistency of the Einstein equations at the level of shockwaves by proving the existence of shock wave solutions of the spherically symmetric Einstein equations for a perfect fluid, starting from initial density and velocity profiles that are only locally of bounded total variation. For these solutions, the components of the gravitational metric tensor are only Lipschitz continuous at shock waves, and so it follows that these solutions satisfy the Einstein equations, as well as the relativistic compressible Euler equations, only in the weak sense of the theory of distributions. The analysis introduces a locally inertial Glimm scheme that exploits the locally flat character of spacetime, and relies on special properties of the relativistic compressible Euler equations when \(p=\sigma^2\rho\), \(\sigma\equiv const\).
We demonstrate the consistency of the Einstein equations at the level of shockwaves by proving the existence of shock wave solutions of the spherically symmetric Einstein equations for a perfect fluid, starting from initial density and velocity profiles that are only locally of bounded total variation. For these solutions, the components of the gravitational metric tensor are only Lipschitz continuous at shock waves, and so it follows that these solutions satisfy the Einstein equations, as well as the relativistic compressible Euler equations, only in the weak sense of the theory of distributions. The analysis introduces a locally inertial Glimm scheme that exploits the locally flat character of spacetime, and relies on special properties of the relativistic compressible Euler equations when \(p=\sigma^2\rho\), \(\sigma\equiv const\).
ReadershipGraduate students and research mathematicians interested in partial differential equations, relativity, and gravitational theory.

Table of Contents

Chapters

1. Introduction

2. Preliminaries

3. The fractional step scheme

4. The Riemann problem step

5. The ODE step

6. Estimates for the ODE step

7. Analysis of the approximate solutions

8. The elimination of assumptions

9. Convergence


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We demonstrate the consistency of the Einstein equations at the level of shockwaves by proving the existence of shock wave solutions of the spherically symmetric Einstein equations for a perfect fluid, starting from initial density and velocity profiles that are only locally of bounded total variation. For these solutions, the components of the gravitational metric tensor are only Lipschitz continuous at shock waves, and so it follows that these solutions satisfy the Einstein equations, as well as the relativistic compressible Euler equations, only in the weak sense of the theory of distributions. The analysis introduces a locally inertial Glimm scheme that exploits the locally flat character of spacetime, and relies on special properties of the relativistic compressible Euler equations when \(p=\sigma^2\rho\), \(\sigma\equiv const\).
We demonstrate the consistency of the Einstein equations at the level of shockwaves by proving the existence of shock wave solutions of the spherically symmetric Einstein equations for a perfect fluid, starting from initial density and velocity profiles that are only locally of bounded total variation. For these solutions, the components of the gravitational metric tensor are only Lipschitz continuous at shock waves, and so it follows that these solutions satisfy the Einstein equations, as well as the relativistic compressible Euler equations, only in the weak sense of the theory of distributions. The analysis introduces a locally inertial Glimm scheme that exploits the locally flat character of spacetime, and relies on special properties of the relativistic compressible Euler equations when \(p=\sigma^2\rho\), \(\sigma\equiv const\).
Graduate students and research mathematicians interested in partial differential equations, relativity, and gravitational theory.

Chapters

1. Introduction

2. Preliminaries

3. The fractional step scheme

4. The Riemann problem step

5. The ODE step

6. Estimates for the ODE step

7. Analysis of the approximate solutions

8. The elimination of assumptions

9. Convergence