Dwork-type supercongruences through a creative -microscope
arXiv:2001.02311 · doi:10.1016/j.jcta.2020.105362
Abstract
We develop an analytical method to prove congruences of the type for primes and fixed integers , where is an "arithmetic" hypergeometric series. Such congruences for were introduced by Dwork in 1969 as a tool for -adic analytical continuation of . Our proofs of several Dwork-type congruences corresponding to (in other words, supercongruences) are based on constructing and proving their suitable -analogues, which in turn have their own right for existence and potential for a -deformation of modular forms and of cohomology groups of algebraic varieties. Our method follows the principles of creative microscoping introduced by us to tackle instances of such congruences; it is the first method capable of establishing the supercongruences of this type for general .
arXiv comment34 pages
References in corpus (16)
- A -microscope for supercongruences
- Ramanujan-type supercongruences
- Super congruences and Euler numbers
- Congruences on sums of -binomial coefficients
- Open Conjectures on Congruences
- Congruences for -binomial coefficients
- Congruences concerning Legendre polynomials
- Some q-analogues of supercongruences of Rodriguez-Villegas
- On a -deformation of modular forms
- "Divergent" Ramanujan-type supercongruences
- q-Congruences, with applications to supercongruences and the cyclic sieving phenomenon
- Supercongruences for rigid hypergeometric Calabi--Yau threefolds
- A common -analogue of two supercongruences
- The method of creative microscoping
- Congruences for truncated hypergeometric series
- A -Dwork-type generalization of Rodriguez-Villegas' supercongruences
Cited by in corpus (6)
- Supercongruences for rigid hypergeometric Calabi--Yau threefolds
- -Supercongruences from Jackson's summation and Watson's transformation
- (-)Supercongruences hit again
- Some -congruences involving central -binomial coefficients
- -tuple sum analogues for Ramanujan-type congruences
- q-analogues of the G.2 Supercongruence of Van Hamme