Holography for Schrodinger backgrounds
Holography for Schrodinger backgrounds
 
  We discuss holography for Schrodinger solutions of both topologically massive
gravity in three dimensions and massive vector theories in (d+1) dimensions. In
both cases the dual field theory can be viewed as a d-dimensional conformal
field theory (two dimensional in the case of TMG) deformed by certain operators
that respect the Schrodinger symmetry. These operators are irrelevant from the
viewpoint of the relativistic conformal group but they are exactly marginal
with respect to the non-relativistic conformal group. The spectrum of linear
fluctuations around the background solutions corresponds to operators that are
labeled by their scaling dimension and the lightcone momentum k_v. We set up
the holographic dictionary and compute 2-point functions of these operators
both holographically and in field theory using conformal perturbation theory
and find agreement. The counterterms needed for holographic renormalization are
non-local in the v lightcone direction.
  
  p.056
  
    
      Guica, Monica
      
        5f33102f-2ae7-4d37-9f0e-03ce08d7d131
      
     
  
    
      Skenderis, Kostas
      
        1520ae98-afd2-4cee-93f5-97edb44ff1d6
      
     
  
    
      Taylor, Marika
      
        5515acab-1bed-4607-855a-9e04252aec22
      
     
  
    
      Rees, Balt van
      
        11b6ca99-1fd7-49c4-b15b-f3783bf92207
      
     
  
  
   
  
  
    
      February 2011
    
    
  
  
    
      Guica, Monica
      
        5f33102f-2ae7-4d37-9f0e-03ce08d7d131
      
     
  
    
      Skenderis, Kostas
      
        1520ae98-afd2-4cee-93f5-97edb44ff1d6
      
     
  
    
      Taylor, Marika
      
        5515acab-1bed-4607-855a-9e04252aec22
      
     
  
    
      Rees, Balt van
      
        11b6ca99-1fd7-49c4-b15b-f3783bf92207
      
     
  
       
    
 
  
  
    
      
        
          Abstract
          We discuss holography for Schrodinger solutions of both topologically massive
gravity in three dimensions and massive vector theories in (d+1) dimensions. In
both cases the dual field theory can be viewed as a d-dimensional conformal
field theory (two dimensional in the case of TMG) deformed by certain operators
that respect the Schrodinger symmetry. These operators are irrelevant from the
viewpoint of the relativistic conformal group but they are exactly marginal
with respect to the non-relativistic conformal group. The spectrum of linear
fluctuations around the background solutions corresponds to operators that are
labeled by their scaling dimension and the lightcone momentum k_v. We set up
the holographic dictionary and compute 2-point functions of these operators
both holographically and in field theory using conformal perturbation theory
and find agreement. The counterterms needed for holographic renormalization are
non-local in the v lightcone direction.
        
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      Published date: February 2011
 
    
  
  
    
  
    
     
        Additional Information:
        Imported from arXiv
      
    
  
    
  
    
  
    
     
    
  
    
  
    
     
        Organisations:
        Applied Mathematics
      
    
  
    
  
  
  
    
  
  
        Identifiers
        Local EPrints ID: 349124
        URI: http://eprints.soton.ac.uk/id/eprint/349124
        
          
        
        
        
        
          PURE UUID: 26d7bd59-e750-480d-af59-7be3f6b74c35
        
  
    
        
          
        
    
        
          
        
    
        
          
            
              
            
          
        
    
        
          
        
    
  
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  Date deposited: 25 Feb 2013 16:05
  Last modified: 15 Mar 2024 03:42
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      Contributors
      
          
          Author:
          
            
            
              Monica Guica
            
          
        
      
          
          Author:
          
            
            
              Kostas Skenderis
            
          
        
      
        
      
          
          Author:
          
            
            
              Balt van Rees
            
          
        
      
      
      
    
  
   
  
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