A note explores theoretical and experimental solutions of a Diophantine equation in integers, suggesting infinite solutions for specific k values.
In this note we consider the title Diophantine equation from both a theoretical as well as experimental point of view. In particular, we prove that for k = 4 , 6 k=4, 6 and each choice of the signs our equation has infinitely many coprime positive integer solutions ( x , y , a , b ) (x, y, a, b) such that no partial sum in the expression x 3 Β± y 3 β ( a k Β± b k ) x^3 Β± y^3-(a^k Β± b^k) vanishes. The same is true for each k β’ 0 ( mod 4 ) k β‘ 0 {4} and the equation x 3 Β± y 3 = a k β b k x^3Β± y^3=a^k-b^k . For k = 5 , 7 k=5, 7 and all choices of the signs we computed all coprime positive integer solutions ( x , y , a , b ) (x, y, a, b) of x 3 Β± y 3 = a k + b k x^3Β± y^3=a^k+b^k
No takes yet. Share an insight, caveat, or question.
Maciej Ulas (2026) studied this question.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: