“…Bennett, Bruin, Győry and Hajdu ( [2]) solved (1.1) when 6 ≤ k ≤ 11. Hirata-Kohno, Laishram, Shorey and Tijdeman ( [13]) completely solved the equation (1.1) with 3 ≤ k < 110. Combining their result with those of Tengely ( [23]) all solutions of (1.1) with 3 ≤ k ≤ 100, P (b) < k are determined, where P (u) denotes the greatest prime factor of u, with the convention P (1) = 1.…”
“…Bennett, Bruin, Győry and Hajdu ( [2]) solved (1.1) when 6 ≤ k ≤ 11. Hirata-Kohno, Laishram, Shorey and Tijdeman ( [13]) completely solved the equation (1.1) with 3 ≤ k < 110. Combining their result with those of Tengely ( [23]) all solutions of (1.1) with 3 ≤ k ≤ 100, P (b) < k are determined, where P (u) denotes the greatest prime factor of u, with the convention P (1) = 1.…”
“…Bennett, Bruin, Győry and Hajdu [3] solved (1) with 6 ≤ k ≤ 11 and l = 2. Hirata-Kohno, Laishram, Shorey and Tijdeman [22] completely solved (1) with 3 ≤ k < 110. Now assume for this paragraph that l ≥ 3.…”
Abstract. In this paper we provide bounds for the size of the solutions of the Diophantine equation= y 2 , where a, b ∈ Z, a = b are parameters. We also determine all integral solutions for a, b ∈ {−4, −3, −2, −1, 4, 5, 6, 7}.
“…When k = 5, Obláth [18] proved that (5.5) does not hold if b = 1 and Mukhopadhyay and Shorey [15] handled the general case P (b) < k. When 6 ≤ k ≤ 11, P (b) ≤ 5, Bennett, Bruin, Győry, and Hajdu [2] showed that the only solution to (5.5) is k = 6, d = 1, x = 1. When 8 ≤ k ≤ 100, d > 1, Hirata-Kohno, Laishram, Shorey, and Tijdeman [9] showed that (5.5) does not hold except possibly in a small number of exceptional cases. These remaining exceptional cases were handled by Tengely [28].…”
We consider some variations on the classical method of Runge for effectively determining integral points on certain curves. We first prove a version of Runge's theorem valid for higher-dimensional varieties, generalizing a uniform version of Runge's theorem due to Bombieri. We then take up the study of how Runge's method may be expanded by taking advantage of certain coverings. We prove both a result for arbitrary curves and a more explicit result for superelliptic curves. As an application of our method, we completely solve certain equations involving squares in products of terms in an arithmetic progression.
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