We extend the method of Loh and Niebuhr for the generation of Carmichael numbers with a large number of prime factors to other classes of pseudoprimes. In particular, we exhibit the first known strong Fibonacci pseudoprimes. The method can be viewed as a simplified version, yet practical, of the method used by Alford, Granville and Pomerance to prove that there is an infinite number of Carmichael numbers
The well known "strong pseudoprime test" has its highest probability of error (ß 1=4) when...
We prove that when (a, m) = 1 and a is a quadratic residue mod m, there are infinitely many Carmicha...
For any finite Galois extension K of ℚ and any conjugacy class C in Gal(K=ℚ), we show that there exi...
AbstractWe describe here a method of constructing Carmichael numbers which are strong pseudoprimes t...
We present two effective sieve algorithms suitable for the computation of Carmichael numbers in a gi...
AbstractWe describe here a method of constructing Carmichael numbers which are strong pseudoprimes t...
Define ψm to be the smallest strong pseudoprime to all the first m prime bases. If we know the exact...
AbstractA method for constructing larger Carmichael numbers from known Carmichael numbers is present...
Abstract. We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also c...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
This book brings together fifty-two papers regarding primes and Fermat pseudoprimes, submitted by th...
The well known "strong pseudoprime test" has its highest probability of error (ß 1=4) when...
We prove that when (a, m) = 1 and a is a quadratic residue mod m, there are infinitely many Carmicha...
For any finite Galois extension K of ℚ and any conjugacy class C in Gal(K=ℚ), we show that there exi...
AbstractWe describe here a method of constructing Carmichael numbers which are strong pseudoprimes t...
We present two effective sieve algorithms suitable for the computation of Carmichael numbers in a gi...
AbstractWe describe here a method of constructing Carmichael numbers which are strong pseudoprimes t...
Define ψm to be the smallest strong pseudoprime to all the first m prime bases. If we know the exact...
AbstractA method for constructing larger Carmichael numbers from known Carmichael numbers is present...
Abstract. We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also c...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
We have constructed a Carmichael number with 10,333,229,505 prime factors, and have also constructed...
This book brings together fifty-two papers regarding primes and Fermat pseudoprimes, submitted by th...
The well known "strong pseudoprime test" has its highest probability of error (ß 1=4) when...
We prove that when (a, m) = 1 and a is a quadratic residue mod m, there are infinitely many Carmicha...
For any finite Galois extension K of ℚ and any conjugacy class C in Gal(K=ℚ), we show that there exi...