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Shazalina Mat Zin
Preferred name
Shazalina Mat Zin
Official Name
Shazalina, Mat Zin
Alternative Name
Zin, Shazalina Mat
Shazalina Mat, Zin
Main Affiliation
Scopus Author ID
55671645200
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1 - 3 of 3
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PublicationApplication of hybrid cubic B-Spline collocation approach for solving a generalized nonlinear Klien-Gordon equation( 2014)
; ;Ahmad Abd Majid ;Ahmad Izani Md. IsmailMuhammad AbbasThe generalized nonlinear Klien-Gordon equation is important in quantum mechanics and related fields. In this paper, a semi-implicit approach based on hybrid cubic B-spline is presented for the approximate solution of the nonlinear Klien-Gordon equation. The usual finite difference approach is used to discretize the time derivative while hybrid cubic B-spline is applied as an interpolating function in the space dimension. The results of applications to several test problems indicate good agreement with known solutions.3 16 -
PublicationNumerical analysis of 25-year-old male and female voices via mechanical model of vocal cord using cubic B-spline collocation methodVocal cords play an important role in human speech production. The development of mechanical models of vocal cords has increased the understanding of their role and functionality. Numerous numerical studies have been explored to investigate the properties of vocal cord. In this work, one-mass mechanical model of vocal cord has been identified to be solved numerically using B-spline collocation method. Parameters of the model have been extracted from 25 years old male and female voices. Displacement of vocal cord at time, t, have been generated explore for each voice. The number of phases and highest displacement have also been discovered in the finding. Duration of first phase of each voice has also been explored.
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PublicationNumerical analysis of one-mass mechanical model of vocal cord using normal and pathological voices through cubic B-spline collocation methodVocal cords play a crucial role in human speech production. The development of mechanical models of vocal cords has increased the understanding of their role and functionality. Numerous numerical studies have been explored to investigate the properties of vocal cord. In this work, one-mass mechanical model of vocal cord has been identified to be solved numerically using B-spline collocation method. Parameters of the model have been extracted from real voices data classified as normal and pathological voices. New results, displacement of vocal cord at time, t, have been generated for each voice. The findings indicated that each voice produced a different value of displacement due to the damping and subglottal pressure of each voice. The number of phases and highest peaks displacement have also been discovered in the finding.