
Parthasarathy Subashini
Parthasarathy Subashini received a B.Sc (Mathematics) degree from Gobi Arts College, Bharathiar University, TamilNadu, India in 1990 and M.CA degree from the same in 1993. She has also received qualified degree of M.Phil and Ph.D respectively in Computer Science in year 1998 and 2009 from Avinashilingam University for Women, Tamil Nadu, India. From 1994 to 2007, she worked in the Computer Science Department of Avinashilingam University, where she is currently a Professor. She has also held few short-term appointments at several institutions around the state.Professor Subashini’s research has spanned a large number of disciplines like Image analysis, Pattern recognition, Neural networks, and Computational Intelligence. Concurrently, she contributed to several fields of mathematics, especially Nature inspired computing. She has authored or co-authored 1 Book, 4 Book chapters, 1 Monograph, 145 papers, including IEEE, Springer’s in various international, national journals and conferences. In course of her research and teaching, Professor Subashini has mentored over a hundred of post graduate students and guiding several doctoral students. She has held positions as reviewer, chairpersons for different peer reviewed journals. Under her supervision, she has ten research projects of worth more than 2.3 crores from various funding agencies like Defence Research and Development Organization, Department of Science and Technology, SERB and University Grants Commission. She has visited many countries like Singapore, Malaysia, Dubai, France, Switzerland, Italy, Canada, Germany, Spain, Czech Republic, Rome and China for various knowledge sharing events. As a member of IEEE, IEEE Computational Intelligence Society and IEEE Computer Society of India, She extended her contribution as IEEE Chair for Women in Computing under IEEE Computer Society of India Council in the year 2015-2016.To add up her credit, recently she has contributed a Nature Inspired Optimization algorithm called ‘Synergistic Fibroblast Optimization(SFO)’. The codes and published articles are publicly available for the perusal of the Research community in MATLAB central, Researchgate and Adademia.edu.
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Books by Parthasarathy Subashini
image acquisition process that result in pixel values that do not reflect the true intensities
of the real scene (Gagnon & Smaili, 1996). There are several ways that noise can be
introduced into an image, depending on how the image is created. For example if the
image is scanned from a photograph made on film, the film grain is a source of noise.
Noise can also be the result of damage to the film, or be introduced by the scanner itself. If
the image is acquired directly in a digital format, the mechanism for gathering the data
(such as a CCD detector) can introduce noise. Electronic transmission of image data can
introduce noise. Noise is considered to be any measurement that is not part of the
phenomena of interest. Noise can be categorized as Image data independent noise and
image data dependent noise.
Wavelets are mathematical functions that cut up data into different frequency components,
and then study each component with a resolution matched to its scale (Durand &
Froment,1992). They have advantages over traditional Fourier methods in analyzing
physical situations where the signal contains discontinuities and sharp spikes. Wavelets
were developed independently in the fields of mathematics, quantum physics, electrical
engineering, and seismic geology. Interchanges between these fields during the last ten
years have led to many new wavelet applications such as image compression, turbulence,
human vision, radar, and earthquake prediction.
image acquisition process that result in pixel values that do not reflect the true intensities
of the real scene (Gagnon & Smaili, 1996). There are several ways that noise can be
introduced into an image, depending on how the image is created. For example if the
image is scanned from a photograph made on film, the film grain is a source of noise.
Noise can also be the result of damage to the film, or be introduced by the scanner itself. If
the image is acquired directly in a digital format, the mechanism for gathering the data
(such as a CCD detector) can introduce noise. Electronic transmission of image data can
introduce noise. Noise is considered to be any measurement that is not part of the
phenomena of interest. Noise can be categorized as Image data independent noise and
image data dependent noise.
Wavelets are mathematical functions that cut up data into different frequency components,
and then study each component with a resolution matched to its scale (Durand &
Froment,1992). They have advantages over traditional Fourier methods in analyzing
physical situations where the signal contains discontinuities and sharp spikes. Wavelets
were developed independently in the fields of mathematics, quantum physics, electrical
engineering, and seismic geology. Interchanges between these fields during the last ten
years have led to many new wavelet applications such as image compression, turbulence,
human vision, radar, and earthquake prediction.
Papers by Parthasarathy Subashini