Letter to Nature. Growth of nanowire superlattice structures for nanoscale photonics and electronics
Letter to Nature. Growth of nanowire superlattice structures for nanoscale photonics and electronics
 
  The assembly of semiconductor nanowires and carbon nanotubes into nanoscale devices and circuits could enable diverse applications in nanoelectronics and photonics1. Individual semiconducting nanowires have already been configured as field-effect transistors2, photodetectors3 and bio/chemical sensors4. More sophisticated light-emitting diodes5 (LEDs) and complementary and diode logic6-8 devices have been realized using both n- and p-type semiconducting nanowires or nanotubes. The n- and p-type materials have been incorporated in these latter devices either by crossing p- and n-type nanowires2, 5, 6, 9 or by lithographically defining distinct p- and n-type regions in nanotubes8, 10, although both strategies limit device complexity. In the planar semiconductor industry, intricate n- and p-type and more generally compositionally modulated (that is, superlattice) structures are used to enable versatile electronic and photonic functions. Here we demonstrate the synthesis of semiconductor nanowire superlattices from group III–V and group IV materials. (The superlattices are created within the nanowires by repeated modulation of the vapour-phase semiconductor reactants during growth of the wires.) Compositionally modulated superlattices consisting of 2 to 21 layers of GaAs and GaP have been prepared. Furthermore, n-Si/p-Si and n-InP/p-InP modulation doped nanowires have been synthesized. Single-nanowire photoluminescence, electrical transport and electroluminescence measurements show the unique photonic and electronic properties of these nanowire superlattices, and suggest potential applications ranging from nano-barcodes to polarized nanoscale LEDs.
  
  
  617-620
  
    
      Gudiksen, M.S.
      
        573a1707-d557-4e41-952c-614cd3eef54a
      
     
  
    
      Lauhon, L.J
      
        98888647-a374-42db-a368-a73848601df5
      
     
  
    
      Wang, J.
      
        53d8d8bd-3c17-406e-9acf-961cc86b9a00
      
     
  
    
      Smith, D.C.
      
        d9b2c02d-b7ea-498b-9ea1-208a1681536f
      
     
  
    
      Lieber, M.
      
        7f6e5859-b15b-4775-8640-dfaa66a1dfde
      
     
  
  
   
  
  
    
      7 February 2002
    
    
  
  
    
      Gudiksen, M.S.
      
        573a1707-d557-4e41-952c-614cd3eef54a
      
     
  
    
      Lauhon, L.J
      
        98888647-a374-42db-a368-a73848601df5
      
     
  
    
      Wang, J.
      
        53d8d8bd-3c17-406e-9acf-961cc86b9a00
      
     
  
    
      Smith, D.C.
      
        d9b2c02d-b7ea-498b-9ea1-208a1681536f
      
     
  
    
      Lieber, M.
      
        7f6e5859-b15b-4775-8640-dfaa66a1dfde
      
     
  
       
    
 
  
    
      
  
  
  
  
  
  
    Gudiksen, M.S., Lauhon, L.J, Wang, J., Smith, D.C. and Lieber, M.
  
  
  
  
   
    (2002)
  
  
    
    Letter to Nature. Growth of nanowire superlattice structures for nanoscale photonics and electronics.
  
  
  
  
    Nature, 415 (6872), .
  
   (doi:10.1038/415617a). 
  
  
   
  
  
  
  
  
   
  
    
      
        
          Abstract
          The assembly of semiconductor nanowires and carbon nanotubes into nanoscale devices and circuits could enable diverse applications in nanoelectronics and photonics1. Individual semiconducting nanowires have already been configured as field-effect transistors2, photodetectors3 and bio/chemical sensors4. More sophisticated light-emitting diodes5 (LEDs) and complementary and diode logic6-8 devices have been realized using both n- and p-type semiconducting nanowires or nanotubes. The n- and p-type materials have been incorporated in these latter devices either by crossing p- and n-type nanowires2, 5, 6, 9 or by lithographically defining distinct p- and n-type regions in nanotubes8, 10, although both strategies limit device complexity. In the planar semiconductor industry, intricate n- and p-type and more generally compositionally modulated (that is, superlattice) structures are used to enable versatile electronic and photonic functions. Here we demonstrate the synthesis of semiconductor nanowire superlattices from group III–V and group IV materials. (The superlattices are created within the nanowires by repeated modulation of the vapour-phase semiconductor reactants during growth of the wires.) Compositionally modulated superlattices consisting of 2 to 21 layers of GaAs and GaP have been prepared. Furthermore, n-Si/p-Si and n-InP/p-InP modulation doped nanowires have been synthesized. Single-nanowire photoluminescence, electrical transport and electroluminescence measurements show the unique photonic and electronic properties of these nanowire superlattices, and suggest potential applications ranging from nano-barcodes to polarized nanoscale LEDs.
        
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      Published date: 7 February 2002
 
    
  
  
    
  
    
  
    
  
    
  
    
     
    
  
    
  
    
  
    
  
  
  
    
  
  
        Identifiers
        Local EPrints ID: 37664
        URI: http://eprints.soton.ac.uk/id/eprint/37664
        
          
        
        
        
          ISSN: 0028-0836
        
        
          PURE UUID: f06240d2-c465-4462-8b7c-f1e40f3db200
        
  
    
        
          
        
    
        
          
        
    
        
          
        
    
        
          
            
          
        
    
        
          
        
    
  
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  Date deposited: 25 May 2006
  Last modified: 15 Mar 2024 08:00
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      Contributors
      
          
          Author:
          
            
            
              M.S. Gudiksen
            
          
        
      
          
          Author:
          
            
            
              L.J Lauhon
            
          
        
      
          
          Author:
          
            
            
              J. Wang
            
          
        
      
        
      
          
          Author:
          
            
            
              M. Lieber
            
          
        
      
      
      
    
  
   
  
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