The holographic fluid dual to vacuum Einstein gravity
The holographic fluid dual to vacuum Einstein gravity
 
  We present an algorithm for systematically reconstructing a solution of the (d+ 2)-dimensional vacuum Einstein equations from a (d + 1)-dimensional fluid, extending the non-relativistic hydrodynamic expansion of Bredberg et al. in arXiv:1101.2451 to arbitrary order. The fluid satisfies equations of motion which are the incompressible Navier-Stokes equations, corrected by specific higher-derivative terms. The uniqueness and regularity of this solution is established to all orders and explicit results are given for the bulk metric and the stress tensor of the dual fluid through fifth order in the hydrodynamic expansion. We establish the validity of a relativistic hydrodynamic description for the dual fluid, which has the unusual property of having a vanishing equilibrium energy density. The gravitational results are used to identify transport coefficients of the dual fluid, which also obeys an interesting and exact constraint on its stress tensor. We propose novel Lagrangian models which realise key properties of the holographic fluid.
  
  JHEP07(2011)050-[29pp]
  
    
      Compère, Geoffrey
      
        fb3e5779-5e31-4eee-9d8f-91fdb1c4bd5c
      
     
  
    
      McFadden, Paul
      
        4e7762ff-9b96-4516-b333-be01784fdbae
      
     
  
    
      Skenderis, Kostas
      
        09f32871-ffb1-4f4a-83bc-df05f4d17a09
      
     
  
    
      Taylor, Marika
      
        5515acab-1bed-4607-855a-9e04252aec22
      
     
  
  
   
  
  
    
      11 July 2011
    
    
  
  
    
      Compère, Geoffrey
      
        fb3e5779-5e31-4eee-9d8f-91fdb1c4bd5c
      
     
  
    
      McFadden, Paul
      
        4e7762ff-9b96-4516-b333-be01784fdbae
      
     
  
    
      Skenderis, Kostas
      
        09f32871-ffb1-4f4a-83bc-df05f4d17a09
      
     
  
    
      Taylor, Marika
      
        5515acab-1bed-4607-855a-9e04252aec22
      
     
  
       
    
 
  
    
      
  
  
  
  
  
  
    Compère, Geoffrey, McFadden, Paul, Skenderis, Kostas and Taylor, Marika
  
  
  
  
   
    (2011)
  
  
    
    The holographic fluid dual to vacuum Einstein gravity.
  
  
  
  
    Journal of High Energy Physics, 2011 (7), .
  
   (doi:10.1007/JHEP07(2011)050). 
  
  
   
  
  
  
  
  
   
  
    
      
        
          Abstract
          We present an algorithm for systematically reconstructing a solution of the (d+ 2)-dimensional vacuum Einstein equations from a (d + 1)-dimensional fluid, extending the non-relativistic hydrodynamic expansion of Bredberg et al. in arXiv:1101.2451 to arbitrary order. The fluid satisfies equations of motion which are the incompressible Navier-Stokes equations, corrected by specific higher-derivative terms. The uniqueness and regularity of this solution is established to all orders and explicit results are given for the bulk metric and the stress tensor of the dual fluid through fifth order in the hydrodynamic expansion. We establish the validity of a relativistic hydrodynamic description for the dual fluid, which has the unusual property of having a vanishing equilibrium energy density. The gravitational results are used to identify transport coefficients of the dual fluid, which also obeys an interesting and exact constraint on its stress tensor. We propose novel Lagrangian models which realise key properties of the holographic fluid.
        
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      Published date: 11 July 2011
 
    
  
  
    
  
    
  
    
  
    
  
    
     
    
  
    
  
    
     
        Organisations:
        Mathematical Sciences
      
    
  
    
  
  
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        Local EPrints ID: 341277
        URI: http://eprints.soton.ac.uk/id/eprint/341277
        
          
        
        
        
        
          PURE UUID: e1f73175-93b9-4e03-bc4a-f62778803b70
        
  
    
        
          
        
    
        
          
        
    
        
          
            
              
            
          
        
    
        
          
            
              
            
          
        
    
  
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  Date deposited: 25 Jul 2012 11:42
  Last modified: 15 Mar 2024 03:42
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      Contributors
      
          
          Author:
          
            
            
              Geoffrey Compère
            
          
        
      
          
          Author:
          
            
            
              Paul McFadden
            
          
        
      
        
      
        
      
      
      
    
  
   
  
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