Abstract:The following discrete geometrical question provides a background for some classical diophantine problems. For given positive integers m, n, can an mdimensional and an n-dimensional unit cube, simplex, pyramid or octahedron contain equally many integral points? Apart from some trivial cases, the question leads to 9 families of diophantine equations, see Table 1. In this paper we give a brief survey of known results on these equations, and prove some new theorems concerning the solutions.
“…The polynomial values of combinatorial polynomials have a vast literature. Here we only mention the papers [2,5,8,10], and the references given there. In this paper, we consider the problem of describing the polynomial values of a family of polynomials related to the sums of products of consecutive integers.…”
We investigate polynomial values of sums of products of consecutive integers. For the degree two case we give effective finiteness results, while for the higher degree case we provide ineffective finiteness theorems. For the latter purpose, we also show that the polynomials corresponding to the sums of products we investigate, are indecomposable.
“…The polynomial values of combinatorial polynomials have a vast literature. Here we only mention the papers [2,5,8,10], and the references given there. In this paper, we consider the problem of describing the polynomial values of a family of polynomials related to the sums of products of consecutive integers.…”
We investigate polynomial values of sums of products of consecutive integers. For the degree two case we give effective finiteness results, while for the higher degree case we provide ineffective finiteness theorems. For the latter purpose, we also show that the polynomials corresponding to the sums of products we investigate, are indecomposable.
“…We mention that there are many results in the literature which are related in the sense that they concern equal values or polynomial values of terms of families of combinatorial polynomials. We cannot survey the extremely huge literature, we only refer to the papers [1,4,8,[15][16][17]24] and the references there. The structure of the paper is the following.…”
Products of terms of arithmetic progressions yielding a perfect power have been long investigated by many mathematicians. In the particular case of consecutive integers, various finiteness results are known for the polynomial values of such products. In the present paper we consider generalizations of these result in various directions.
“…Further, under certain assumptions Pintér [16] proved that for the nontrivial solutions we have n < ck log(2k), where c is an effectively computable absolute constant. For more results concerning (1) and its various generalizations, we refer once again to the book [20] and the papers [2, 6,7] and the references therein.…”
Section: Introductionmentioning
confidence: 99%
“…For details and more history we refer to the book [20] and the papers [2, 6,7] and the references given there. As it is well-known, in the case when (k, n) belongs to the set (2) {(1, 2), (3, 2), (3, 4), (5, 2)}…”
Abstract. We prove Schäffer's conjecture concerning the solutions of the equation in the title under certain assumptions on x, letting the other variables k, n, y be completely free. We also provide upper bounds for n under more moderate conditions. Finally, we give all solutions of the equation in the title for some concrete values of x. Our results rely on assertions describing the precise exponents of 2 and 3 appearing in the prime factorization of S k (x) and on the explicit solution of polynomial-exponential congruences.
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