Min Sha
University of New South Wales
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Publication
Featured researches published by Min Sha.
Periodica Mathematica Hungarica | 2015
Min Sha
Carmichael quotients for an integer
Experimental Mathematics | 2015
Artūras Dubickas; Min Sha
Journal of Combinatorial Theory | 2016
Sergei Konyagin; Florian Luca; Bernard Mans; Luke Mathieson; Min Sha; Igor E. Shparlinski
m\ge 2
Finite Fields and Their Applications | 2015
Min Sha
Experimental Mathematics | 2017
Bernard Mans; Min Sha; Igor E. Shparlinski; Daniel Sutantyo
m≥2 are introduced analogous to Fermat quotients, by using Carmichael function
Journal of Mathematical Cryptology | 2014
Min Sha
International Journal of Number Theory | 2014
Min Sha
\lambda (m)
Advances in Mathematics of Communications | 2014
Min Sha
Periodica Mathematica Hungarica | 2018
Min Sha
λ(m). Various properties of these new quotients are investigated, such as basic arithmetic properties, sequences derived from Carmichael quotients, Carmichael-Wieferich numbers, and so on. Finally, we link Carmichael quotients to perfect nonlinear functions.
Mathematische Zeitschrift | 2018
Régis de la Bretèche; Min Sha; Igor E. Shparlinski; José Felipe Voloch
In this paper, we concentrate on counting and testing dominant polynomials with integer coefficients. A polynomial is called dominant if it has a simple root whose modulus is strictly greater than the moduli of its remaining roots. In particular, our results imply that the probability that what is known as the dominant root assumption holds for a random monic polynomial with integer coefficients tends to 1 in some setting. However, for arbitrary integer polynomials it does not tend to 1. For instance, the proportion of dominant quadratic integer polynomials of height H among all quadratic integer polynomials tends to (41 + 6log 2)/72 as H → ∞. Finally, we design some algorithms to test whether a given polynomial with integer coefficients is dominant without finding the polynomial’s roots.