A new method, referred to as the full-recurrent-decimal-sequences (FRDS) method, is proposed to generate the pseudorandom integer strings and the pseudorandom sequences. The pseudorandom integer strings properties and...A new method, referred to as the full-recurrent-decimal-sequences (FRDS) method, is proposed to generate the pseudorandom integer strings and the pseudorandom sequences. The pseudorandom integer strings properties and the run-length properties of the FRDS-sequences are investigated . By transformation, a new kind of pseudorandom sequences with optimal auto-correlation functions is suggested.展开更多
<正> The performance of individual pseudo-random sequence, generated by some mechanism, is often not ideal. The asymptotic performance of the addition (in the sense (mod p) of a large number of such individual s...<正> The performance of individual pseudo-random sequence, generated by some mechanism, is often not ideal. The asymptotic performance of the addition (in the sense (mod p) of a large number of such individual sequences is studied and the necessary and sufficient condition under which the resulting sequence may converge to genuine randomness is obtained.展开更多
基金Project supported by the"863"National High-Tech Research and Development Program of China(No.2008AA01 Z211)the International Science and Technology Cooperation Program(No.2008DFA11630)
文摘A new method, referred to as the full-recurrent-decimal-sequences (FRDS) method, is proposed to generate the pseudorandom integer strings and the pseudorandom sequences. The pseudorandom integer strings properties and the run-length properties of the FRDS-sequences are investigated . By transformation, a new kind of pseudorandom sequences with optimal auto-correlation functions is suggested.
基金Project supported by the National Natural Science Foundation of China,the UPGC of Hong Kong,Hong Kong Baptist University and SRCU.
文摘<正> The performance of individual pseudo-random sequence, generated by some mechanism, is often not ideal. The asymptotic performance of the addition (in the sense (mod p) of a large number of such individual sequences is studied and the necessary and sufficient condition under which the resulting sequence may converge to genuine randomness is obtained.