(ii) Let \epsilon (n) be any positive function of n which tends to zero as n tends to infinity. Then for almost all integers n, P(n!+1) > n+\epsilon (n)n ½. (iii) limsupn > oo P(n!+1)/n > 2+\delta where \delta is an effectively computable positive constant. The authors also prove: Theorem. Let pn denote the n-th prime number. Then for infinitely many integers n(> 0), P(p1 ... pn+1) > pn+k where k > c log n/ log log n for some positive absolute constant c. In proving the latter theorem the authors also establish: Theorem. The equations prodp \leq np =
Reviewer: K.Ramachandra
Classif.: * 11N05 Distribution of primes
11N37 Asymptotic results on arithmetic functions
11A41 Elemementary prime number theory
11D41 Higher degree diophantine equations
© European Mathematical Society & FIZ Karlsruhe & Springer-Verlag