New examples of complete sets, with connections to a Diophantine theorem of Furstenberg

Abstract

A set A⊂eq N is called complete if every sufficiently large integer can be written as the sum of distinct elements of A. In this paper we present a new method for proving the completeness of a set, improving results of Cassels ('60), Zannier ('92), Burr, Erdos, Graham, and Li ('96), and Hegyv\'ari ('00). We also introduce the somewhat philosophically related notion of a dispersing set and refine a theorem of Furstenberg ('67).

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