Journal of Mathematics in Industry · 2016 · 52 citations · 44 references
Natural SciencesElectrical EngineeringPhysicsCondensed Matter PhysicsNanotechnologySemiconductor MaterialsChaos TheoryNanoelectronicsRandom Number GenerationSemiconductor PhysicsPhysical Random Number GeneratorsQuantum ChaosRandom Bit GenerationRandomness GenerationSecure Data TransferSuperlatticesTrue Random Number Generation
Random number (bit) generators are crucial to secure communications, data transfer and storage, and electronic transactions, to carry out stochastic simulations and to many other applications. As software generated random sequences are not truly random, fast entropy sources such as quantum systems or classically chaotic systems can be viable alternatives provided they generate high-quality random sequences sufficiently fast. The discovery of spontaneous chaos in semiconductor superlattices at room temperature has produced a valuable nanotechnology option. Here we explain a mathematical model to describe spontaneous chaos in semiconductor superlattices at room temperature, solve it numerically to reveal the origin and characteristics of chaotic oscillations, and discuss the limitations of the model in view of known experiments. We also explain how to extract verified random bits from the analog chaotic signal produced by the superlattice.
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<i>Quantum Computation and Quantum Information</i>
Michael A. Nielsen, Isaac L. Chuang, Lov K. Grover · American Journal of Physics · 2002 · 22.7K citations
Quantum computation and quantum information
Jim Law · ACM SIGSOFT Software Engineering Notes · 2001 · 19.2K citations
Computing, Computer Science, Physics +13
Shot noise in mesoscopic conductors
Physics Reports · 2000 · 2.5K citations · Full text