@inproceedings{Ostromoukhov:1998:SCD,
optpostscript = {},
www = {http://spie.org/scripts/abstract.pl?bibcode=1998SPIE%2e3648%2e%2e496O},
optnote = {},
optorganization = {},
author = {Victor Ostromoukhov and Roger D. Hersch},
optkey = {},
series = {SPIE Proceedings Series},
optannote = {},
editor = {Giordano B. Beretta and Reiner Eschbach},
url = {http://www.iro.umontreal.ca/~ostrom/publications/abstracts.html#SPIE99_StochasticClust},
localfile = {papers/Ostromoukhov.1998.SCD.pdf},
address = {Bellingham, Washington},
optisbn = {},
publisher = {SPIE},
optmonth = {},
optciteseer = {},
doi = {http://dx.doi.org/10.1117/12.334594},
volume = {3648},
optcrossref = {},
booktitle = {Proceedings of SPIE Color Imaging: Device-Independent Color,
Color Hardcopy, and Graphic Arts IV},
optnumber = {},
abstract = {A new technique for building stochastic clustered-dot screens is
being proposed. A large dither matrix comprising thousands of
stochastically laid out screen dots is constructed by first laying
out the screen dot centers. Screen dot centers ar obtained by
placing discrete disks of a chosen radius at free cell locations
when traversing the dither array cells according to either a
discretely rotated Halberd space-filling curve or a random
space-filling curve. After Delauney triangulation of the screen
dot centers, the maximal surface of each screen dot is computed
and iso- intensity regions are created. This iso-intensity map is
converted to an anti-aliased grayscale image, i.e. to an array of
preliminary threshold values. These threshold values are
renumbered to obtain the threshold values of the final dither
threshold array. By changing the disk radius, the screen dot size
can be adapted to the characteristics of particular printing
devices. Larger screen dots may improve the tone reproduction of
printers having important dot gain.},
title = {{S}tochastic {C}lustered-{D}ot {D}ithering},
year = {1998},
pages = {496--505},
}
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