{ "id": "1305.6031", "version": "v1", "published": "2013-05-26T14:29:07.000Z", "updated": "2013-05-26T14:29:07.000Z", "title": "Congruences for Generalized Frobenius Partitions with an Arbitrarily Large Number of Colors", "authors": [ "Frank G. Garvan", "James A. Sellers" ], "journal": "INTEGERS 14 (2014), Article A7", "categories": [ "math.NT" ], "abstract": "In his 1984 AMS Memoir, George Andrews defined the family of $k$--colored generalized Frobenius partition functions. These are denoted by $c\\phi_k(n)$ where $k\\geq 1$ is the number of colors in question. In that Memoir, Andrews proved (among many other things) that, for all $n\\geq 0,$ $c\\phi_2(5n+3) \\equiv 0\\pmod{5}.$ Soon after, many authors proved congruence properties for various $k$--colored generalized Frobenius partition functions, typically with a small number of colors. Work on Ramanujan--like congruence properties satisfied by the functions $c\\phi_k(n)$ continues, with recent works completed by Baruah and Sarmah as well as the author. Unfortunately, in all cases, the authors restrict their attention to small values of $k.$ This is often due to the difficulty in finding a \"nice\" representation of the generating function for $c\\phi_k(n)$ for large $k.$ Because of this, no Ramanujan--like congruences are known where $k$ is large. In this note, we rectify this situation by proving several infinite families of congruences for $c\\phi_k(n)$ where $k$ is allowed to grow arbitrarily large. The proof is truly elementary, relying on a generating function representation which appears in Andrews' Memoir but has gone relatively unnoticed.", "revisions": [ { "version": "v1", "updated": "2013-05-26T14:29:07.000Z" } ], "analyses": { "subjects": [ "05A17", "11P83" ], "keywords": [ "arbitrarily large number", "colored generalized frobenius partition functions", "congruence properties", "generating function" ], "tags": [ "journal article" ], "note": { "typesetting": "TeX", "pages": 0, "language": "en", "license": "arXiv", "status": "editable", "adsabs": "2013arXiv1305.6031G" } } }