39 research outputs found
The jumping champion conjecture
An integer is called a jumping champion for a given if is the
most common gap between consecutive primes up to . Occasionally several gaps
are equally common. Hence, there can be more than one jumping champion for the
same . For the th prime , the th primorial is
defined as the product of the first primes. In 1999, Odlyzko, Rubinstein
and Wolf provided convincing heuristics and empirical evidence for the truth of
the hypothesis that the jumping champions greater than 1 are 4 and the
primorials , that is, In this paper, we
prove that an appropriate form of the Hardy-Littlewood prime -tuple
conjecture for prime pairs and prime triples implies that all sufficiently
large jumping champions are primorials and that all sufficiently large
primorials are jumping champions over a long range of .Comment: 19 pages, 1 tabl
On the equidistribution properties of patterns in prime numbers Jumping Champions, metaanalysis of properties as Low-Discrepancy Sequences, and some conjectures based on Ramanujan's master theorem and the zeros of Riemann's zeta function
The Paul Erd\H{o}s-Tur\'an inequality is used as a quantitative form of Weyl'
s criterion, together with other criteria to asses equidistribution properties
on some patterns of sequences that arise from indexation of prime numbers,
Jumping Champions (called here and in previous work, "meta-distances" or even
md, for short). A statistical meta-analysis is also made of previous research
concerning meta-distances to review the conclusion that meta-distances can be
called Low-discrepancy sequences (LDS), and thus exhibiting another numerical
evidence that md's are an equidistributed sequence. Ramanujan's master theorem
is used to conjecture that the types of integrands where md's can be used more
succesfully for quadratures are product-related, as opposite to
addition-related. Finally, it is conjectured that the equidistribution of md's
may be connected to the know equidistribution of zeros of Riemann's zeta
function, and yet still have enough "information" for quasi-random integration
("right" amount of entropy).Comment: 13 pages, 7 Figures, 4 table