Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets

Two-dimensional wavelet transform and inverse wavelet transform methods are used to edge pass filter the digitized image of G-banded human metaphasic chromosomes. Several Daubechies' family of wavelets are applied in the study of improving the phase information of the digitized image of human c...

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Main Authors: Rome, Michael P., Carbonell, Christopher Anthony G.
Format: text
Language:English
Published: Animo Repository 1998
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Online Access:https://animorepository.dlsu.edu.ph/etd_bachelors/4499
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Institution: De La Salle University
Language: English
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spelling oai:animorepository.dlsu.edu.ph:etd_bachelors-48842021-02-01T05:40:24Z Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets Rome, Michael P. Carbonell, Christopher Anthony G. Two-dimensional wavelet transform and inverse wavelet transform methods are used to edge pass filter the digitized image of G-banded human metaphasic chromosomes. Several Daubechies' family of wavelets are applied in the study of improving the phase information of the digitized image of human chromosomes. Implementation of Wavelet Transform and Inverse Wavelet Transform is programmed in C++ programming language using the Pyramidal algorithm. Each digitized image of a G-banded human metaphasic chromosome is configured in a 256 grayscale pixel format and in a PCX graphics file format whose image size is delimited to 256 X 256 pixel size. Specimens imaged under a transmissive light microscope is captured by a CCD (Charged Coupled Device) camera and then digitized by a video frame grabber. The digitized image is stored and processed by a Pentium PC that runs the edge pass filtering program. Low phase band data of the transformed image is then set to zero to highlight the high phase band component. An Inverse Wavelet Transform is implemented to restore the high phase band information of the digitized G-banded human metaphasic chromosome. All Daubechies' family of wavelet filters can evidently increase the edge phase contrast. Higher Daubechies filters brighten up the background of the image while lower Daubechies filters darken the background of the image. There is no significant difference between images among different scales for the same wavelet filter. 1998-01-01T08:00:00Z text https://animorepository.dlsu.edu.ph/etd_bachelors/4499 Bachelor's Theses English Animo Repository Human chromosomes Image processing--Digital techniques Electric filters (Wave-guide) Karyotypes Mathematical analysis Physics
institution De La Salle University
building De La Salle University Library
continent Asia
country Philippines
Philippines
content_provider De La Salle University Library
collection DLSU Institutional Repository
language English
topic Human chromosomes
Image processing--Digital techniques
Electric filters (Wave-guide)
Karyotypes
Mathematical analysis
Physics
spellingShingle Human chromosomes
Image processing--Digital techniques
Electric filters (Wave-guide)
Karyotypes
Mathematical analysis
Physics
Rome, Michael P.
Carbonell, Christopher Anthony G.
Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets
description Two-dimensional wavelet transform and inverse wavelet transform methods are used to edge pass filter the digitized image of G-banded human metaphasic chromosomes. Several Daubechies' family of wavelets are applied in the study of improving the phase information of the digitized image of human chromosomes. Implementation of Wavelet Transform and Inverse Wavelet Transform is programmed in C++ programming language using the Pyramidal algorithm. Each digitized image of a G-banded human metaphasic chromosome is configured in a 256 grayscale pixel format and in a PCX graphics file format whose image size is delimited to 256 X 256 pixel size. Specimens imaged under a transmissive light microscope is captured by a CCD (Charged Coupled Device) camera and then digitized by a video frame grabber. The digitized image is stored and processed by a Pentium PC that runs the edge pass filtering program. Low phase band data of the transformed image is then set to zero to highlight the high phase band component. An Inverse Wavelet Transform is implemented to restore the high phase band information of the digitized G-banded human metaphasic chromosome. All Daubechies' family of wavelet filters can evidently increase the edge phase contrast. Higher Daubechies filters brighten up the background of the image while lower Daubechies filters darken the background of the image. There is no significant difference between images among different scales for the same wavelet filter.
format text
author Rome, Michael P.
Carbonell, Christopher Anthony G.
author_facet Rome, Michael P.
Carbonell, Christopher Anthony G.
author_sort Rome, Michael P.
title Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets
title_short Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets
title_full Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets
title_fullStr Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets
title_full_unstemmed Edge pass filtering of the digitized image of G-banded human metaphasic chromosomes using Daubechies wavelets
title_sort edge pass filtering of the digitized image of g-banded human metaphasic chromosomes using daubechies wavelets
publisher Animo Repository
publishDate 1998
url https://animorepository.dlsu.edu.ph/etd_bachelors/4499
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