Automated tissue image analysis: Difference between revisions

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{{cite journal
|title=Improved prediction of prostate cancer recurrence based on an automated tissue image analysis system
|author=Teverovskiy, M.
|authors=Teverovskiy, M.; Kumar, V.; Junshui Ma; Kotsianti, A.; Verbel, D.; Tabesh, A.; Ho-Yuen Pang; Vengrenyuk, Y.; Fogarasi, S.; Saidi, O.; Aureon Biosciences Corp., Yonkers, NY, USA
|author2= Kumar, V.
|author3= Junshui Ma
|author4= Kotsianti, A.
|author5= Verbel, D.
|author6= Tabesh, A.
|author7= Ho-Yuen Pang
|author8= Vengrenyuk, Y.
|author9= Fogarasi, S.
|author10= Saidi, O.
|author11= ((Aureon Biosciences Corp., Yonkers, NY, USA))
|journal=Biomedical Imaging: Nano to Macro, 2004. IEEE International Symposium
|date=2004-04-18
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===Analysis===
 
Image analysis involves complex computer algorithms which identify and characterize cellular color, shape, and quantity of the tissue sample using image pattern recognition technology based on [[vector quantization]]. Vector representations of objects in the image, as opposed to bitmap representations, have superior zoom-in ability. Once the sample image has been acquired and resident in the computer's random access memory as a large array of 0's and 1's, a programmer knowledgeable in cellular architecture can develop deterministic [[algorithms]] applied to the entire memory space to detect cell patterns from previously defined cellular structures and formations known to be significant.<ref name="han12cell">{{cite journal| authorsauthor=Han, J.W.,| author2=Breckon, T.P.,| author3=Randell, D.A.,| author4=Landini, G.| title=The Application of Support Vector Machine Classification to Detect Cell Nuclei for Automated Microscopy| journal=Machine Vision and Applications| year=2012| volume=23| pages=15–24| publisher=Springer| doi=10.1007/s00138-010-0275-y| issue=1}}</ref>
 
The aggregate algorithm outcome is a set of measurements that is far superior to any human sensitivity to intensity or [[luminance]] and color hue, while at the same time improving test consistency from eyeball to eyeball.{{Citation needed|date=August 2010}}