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Extension of a conjectural supercongruence of (G.3) of Swisher using Zeilberger's algorithm

Published 5 Nov 2020 in math.NT | (2011.02757v2)

Abstract: Using Zeilberger's algorithm, we here give a proof of the supercongruence ∑n=0<sup>p<sup>r−34(8n+1)(14)n<sup>4(1)n<sup>4≡</sup></sup></sup></sup>−p<sup>3</sup>∑n=0<sup>p<sup>r−2−34(8n+1)(14)n<sup>4(1)n<sup>4</sup></sup></sup></sup>  (mod p<sup>3r−12), \sum_{n=0}<sup>{\frac{p<sup>r-3}{4}}(8n+1)\frac{\left(\frac{1}{4}\right)_n<sup>4}{(1)_n<sup>4}\equiv</sup></sup></sup></sup> -p<sup>3</sup> \sum_{n=0}<sup>{\frac{p<sup>{r-2}-3}{4}}(8n+1)\frac{\left(\frac{1}{4}\right)_n<sup>4}{(1)_n<sup>4}</sup></sup></sup></sup> ~~(\text{mod }p<sup>{\frac{3r-1}{2}}), for any odd integer $r&gt;3$. This extends the third conjectural supercongruence of (G.3) of Swisher to modulo higher prime powers than that expected by Swisher.

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