6 research outputs found

    FPGA Based Random Number Generation for Cryptographic Applications

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    Random numbers are useful for a variety of purposes, such as generating data encryption keys,simulating and modeling complex phenomena and for selecting random samples from larger data sets. They have also been used aesthetically, for example in literature and music, and are of course ever popular for games and gambling. When discussing single numbers, a random number is one that is drawn from a set of possible values, each of which is equally probable, i.e., a uniform distribution. When discussing a sequence of random numbers, each number drawn must be statistically independent of the others. Random numbers are generated by various methods. The two types of generators used for random number generation are pseudo random number generator (PRNG) and true random number generator (TRNG). The numbers generated are random because no polynomial – time algorithm can describe the relation amongst the different numbers of the sequence. Numbers generated by true random number generator (TRNG) or cryptographically secure pseudo random number generator (CSPRNG). The sources of randomness in TRNG are physical phenomena like lightning, radioactive decay, thermal noise etc. The source of randomness in CSPRNG is the algorithm on which it is based. In this project, the random numbers generated for cryptographic applications were generated by using the Blum Blum Shub generator, the CSPRBG. It was implemented on a FPGA platform using VHDL programming language and the simulation was done and tested on the Xilinx ISE 10.1i

    Third International Conference on Monte Carlo and Quasi-Monte Carlo Methods in Scientific Computing (MCQMC98)

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    Finite Fields: Theory and Applications

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    Finite fields are the focal point of many interesting geometric, algorithmic and combinatorial problems. The workshop was devoted to progress on these questions, with an eye also on the important applications of finite field techniques in cryptography, error correcting codes, and random number generation

    On the Lattice Structure of Inversive PRNG via the Additive Order

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