View source for Publications/le-quoc.07.ntms

{{Publication
| date = 2007-05-01
| authors = Cuong Le Quoc, Patrick Bellot, Akim Demaille
| title = On the security of quantum networks: a proposal framework and its capacity
| booktitle = Proceedings of the 2007 International Conference on New Technologies, Mobility and Security (NTMS'07)
| address = Paris, France
| urllrde = 200705-NTMS
| abstract = In large Quantum Key Distribution (QKD)-based networksintermediate nodes are necessary because of the short length of QKD links. They have tendency to be used more than classical networks. A realistic assumption is that there are eavesdropping operations in these nodes without knowledge of legitimate network participants. We develop a QKD-based network framework. We present a percolation-based approach to discuss about conditions of extremely high secret key transmission. We propose also an adaptive stochastic routing algorithm that helps on protecting keys from reasonable eavesdroppers in a dense QKD network. We show that under some assumptions, one could prevent eavesdroppers from sniffing the secrets with an arbitrarily large probability.
| lrdekeywords = Software engineering
| type = inproceedings
| id = le-quoc.07.ntms
| bibtex = 
@InProceedings<nowiki>{</nowiki>	  le-quoc.07.ntms,
  author	= <nowiki>{</nowiki>Cuong Le Quoc and Patrick Bellot and Akim Demaille<nowiki>}</nowiki>,
  title		= <nowiki>{</nowiki>On the security of quantum networks: a proposal framework
		  and its capacity<nowiki>}</nowiki>,
  booktitle	= <nowiki>{</nowiki>Proceedings of the 2007 International Conference on New
		  Technologies, Mobility and Security (NTMS'07)<nowiki>}</nowiki>,
  year		= 2007,
  address	= <nowiki>{</nowiki>Paris, France<nowiki>}</nowiki>,
  month		= may,
  abstract	= <nowiki>{</nowiki>In large Quantum Key Distribution (QKD)-based networks,
		  intermediate nodes are necessary because of the short
		  length of QKD links. They have tendency to be used more
		  than classical networks. A realistic assumption is that
		  there are eavesdropping operations in these nodes without
		  knowledge of legitimate network participants. We develop a
		  QKD-based network framework. We present a percolation-based
		  approach to discuss about conditions of extremely high
		  secret key transmission. We propose also an adaptive
		  stochastic routing algorithm that helps on protecting keys
		  from reasonable eavesdroppers in a dense QKD network. We
		  show that under some assumptions, one could prevent
		  eavesdroppers from sniffing the secrets with an arbitrarily
		  large probability.<nowiki>}</nowiki>
<nowiki>}</nowiki>

}}