Title :
Multiscale genomic imaging informatics [Life Sciences]
Author_Institution :
Univ. of Missouri-Kansas City, Kansas City, MO, USA
fDate :
11/1/2009 12:00:00 AM
Abstract :
It is well known that the human genome has multiscale structures; multiscale approaches at the cellular, molecular, and sequence levels have been used to detect genomic variations, which are associated with phenotypic differences or diseases including cancers. Reaping the fruit of human genome sequencing, high-resolution imaging probes have been designed in recent years. Combined with image processing techniques, they enable the detection of cryptic and complex genetic aberrations at higher resolutions, holding great promise for personalized medicine. However, fulfilling the promise calls for powerful analytic techniques to handle the vast amount of imaging data generated by these high resolution imaging probes. Signal processing techniques such as wavelets play an important role in addressing computational challenges in this emerging area.
Keywords :
biology computing; diseases; genetics; genomics; image resolution; medical image processing; wavelet transforms; cancer; cryptic genetic aberration detection; diseases; genomic variation; high-resolution imaging; human genome sequencing; image processing; multiscale genomic imaging informatics; multiscale structure; personalized medicine; phenotypic difference; signal processing; wavelets; Bioinformatics; Cancer detection; Diseases; Genetics; Genomics; High-resolution imaging; Humans; Image processing; Informatics; Probes;
Journal_Title :
Signal Processing Magazine, IEEE
DOI :
10.1109/MSP.2009.934185