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For any odd prime p we obtain q-analogues of van Hamme’s and Rodriguez-Villegas’ supercongruences involving products of three binomial coefficients such as
for p≡ 3 (mod 4),
for p≡ 2 (mod 3),
where and . We also prove q-analogues of the Sun brothers’ generalizations of the above supercongruences. Our proofs are elementary in nature and use the theory of basic hypergeometric series and combinatorial q-binomial identities including a new q-Clausen type summation formula.
Victor J. W. Guo, and Jiang Zeng. "Some q-supercongruences for truncated basic hypergeometric series." Acta Arithmetica 171.4 (2015): 309-326. <http://eudml.org/doc/286367>.
@article{VictorJ2015, abstract = {For any odd prime p we obtain q-analogues of van Hamme’s and Rodriguez-Villegas’ supercongruences involving products of three binomial coefficients such as
$∑_\{k=0\}^\{(p-1)/2\} [\{2k \atop k\}]_\{q²\}^\{3\} (q^\{2k\})/((-q²;q²)²_\{k\}(-q;q)²_\{2k\}²) ≡ 0 (mod [p]²)$ for p≡ 3 (mod 4),
$∑_\{k=0\}^\{(p-1)/2\} [\{2k \atop k\}]_\{q³\} ((q;q³)_\{k\}(q²;q³)_\{k\}q^\{3k\})((q⁶;q⁶)_\{k\}²) ≡ 0 (mod [p]²)$ for p≡ 2 (mod 3),
where $[p] = 1 + q + ⋯ +q^\{p-1\}$ and $(a;q)ₙ = (1-a)(1-aq)⋯ (1-aq^\{n-1\})$. We also prove q-analogues of the Sun brothers’ generalizations of the above supercongruences. Our proofs are elementary in nature and use the theory of basic hypergeometric series and combinatorial q-binomial identities including a new q-Clausen type summation formula.}, author = {Victor J. W. Guo, Jiang Zeng}, journal = {Acta Arithmetica}, keywords = {-adic integer; congruences; supercongruences; basic hypergeometric series; q-binomial theorem; -Chu-Vandermonde formula}, language = {eng}, number = {4}, pages = {309-326}, title = {Some q-supercongruences for truncated basic hypergeometric series}, url = {http://eudml.org/doc/286367}, volume = {171}, year = {2015}, }
TY - JOUR AU - Victor J. W. Guo AU - Jiang Zeng TI - Some q-supercongruences for truncated basic hypergeometric series JO - Acta Arithmetica PY - 2015 VL - 171 IS - 4 SP - 309 EP - 326 AB - For any odd prime p we obtain q-analogues of van Hamme’s and Rodriguez-Villegas’ supercongruences involving products of three binomial coefficients such as
$∑_{k=0}^{(p-1)/2} [{2k \atop k}]_{q²}^{3} (q^{2k})/((-q²;q²)²_{k}(-q;q)²_{2k}²) ≡ 0 (mod [p]²)$ for p≡ 3 (mod 4),
$∑_{k=0}^{(p-1)/2} [{2k \atop k}]_{q³} ((q;q³)_{k}(q²;q³)_{k}q^{3k})((q⁶;q⁶)_{k}²) ≡ 0 (mod [p]²)$ for p≡ 2 (mod 3),
where $[p] = 1 + q + ⋯ +q^{p-1}$ and $(a;q)ₙ = (1-a)(1-aq)⋯ (1-aq^{n-1})$. We also prove q-analogues of the Sun brothers’ generalizations of the above supercongruences. Our proofs are elementary in nature and use the theory of basic hypergeometric series and combinatorial q-binomial identities including a new q-Clausen type summation formula. LA - eng KW - -adic integer; congruences; supercongruences; basic hypergeometric series; q-binomial theorem; -Chu-Vandermonde formula UR - http://eudml.org/doc/286367 ER -