Title of article :
Experimental investigation of quantum key distribution through transparent optical switch elements
Author/Authors :
P.، Toliver, نويسنده , , R.J.، Runser, نويسنده , , T.E.، Chapuran, نويسنده , , J.L.، Jackel, نويسنده , , T.C.، Banwell, نويسنده , , M.S.، Goodman, نويسنده , , R.J.، Hughes, نويسنده , , C.G.، Peterson, نويسنده , , D.، Derkacs, نويسنده , , J.E.، Nordholt, نويسنده , , L.، Mercer, نويسنده , , S.، McNown, نويسنده , , A.، Goldman, نويسنده , , J.، Blake, نويسنده ,
Issue Information :
روزنامه با شماره پیاپی سال 2003
Pages :
-1668
From page :
1669
To page :
0
Abstract :
Quantum key distribution (QKD) enables unconditional physical layer security for the distribution of cryptographic key material. However, most experimental demonstrations have relied on simple point-to-point optical links. In this paper we investigate the compatibility of QKD with reconfigurable optical networks. By performing the first tests of QKD transmission through optical switches, we study if there are impairment mechanisms other than switch insertion loss that impact the sifted and error corrected secret bit yield. Three types of transparent optical switch elements are investigated including lithium niobate (LiNbO/sub 3/), microelectromechanical systems (MEMS), and optomechanical. We show that QKD can be extended beyond point-to-point links to switched multinode architectures including protected ring networks to enhance quantum channel availability.
Keywords :
E-LEARNING , Perceived credibility , Technology acceptance model (TAM)
Journal title :
IEEE PHOTONICS TECHNOLOGY LETTERS
Serial Year :
2003
Journal title :
IEEE PHOTONICS TECHNOLOGY LETTERS
Record number :
85663
Link To Document :
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