{ "id": "1902.03887", "version": "v1", "published": "2019-02-07T16:57:07.000Z", "updated": "2019-02-07T16:57:07.000Z", "title": "Quantization for uniform distributions on hexagonal, semicircular, and elliptical curves", "authors": [ "Gabriela Pena", "Hansapani Rodrigo", "Mrinal Kanti Roychowdhury", "Josef Sifuentes", "Erwin Suazo" ], "comment": "arXiv admin note: text overlap with arXiv:1809.08364", "categories": [ "math.PR" ], "abstract": "In this paper, first we have defined the uniform distribution on the boundary of a regular hexagon, and then investigate the optimal sets of $n$-means and the $n$th quantization errors for all positive integers $n$. We give an exact formula to determine them if $n$ is of the form $n=6k+6$ for some positive integer $k$. We further calculate the quantization dimension, and the quantization coefficient, and show that the quantization dimension is equal to the dimension of the object, and the quantization coefficient exists as a finite positive number, which supports the well-known result of Bucklew and Wise (1982), which says that for a Borel probability measure $P$ with non-vanishing absolutely continuous part the quantization coefficient exists as a finite positive number. Then, we define the uniform distribution on the boundary of a semicircular disc, and obtain a sequence and an algorithm, which help us to determine the optimal sets of $n$-means and the $n$th quantization errors for all positive integers $n$ with respect to the uniform distribution. Finally, for a uniform distribution defined on an elliptical curve, we investigate the optimal sets of $n$-means and the $n$th quantization errors for all positive integers $n$.", "revisions": [ { "version": "v1", "updated": "2019-02-07T16:57:07.000Z" } ], "analyses": { "subjects": [ "60Exx", "94A34" ], "keywords": [ "uniform distribution", "elliptical curve", "th quantization errors", "positive integer", "quantization coefficient" ], "note": { "typesetting": "TeX", "pages": 0, "language": "en", "license": "arXiv", "status": "editable" } } }