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http://dx.doi.org/10.17703/IJACT.2017.5.3.67

Analysis on the special quantitative variation of dot model by the position transform  

Kim, Jeong-lae (Department of Biomedical Engineering, Eulji University)
Kim, Kyung-seop (Department of Faculty of Liberal Arts, Eulji University)
Publication Information
International Journal of Advanced Culture Technology / v.5, no.3, 2017 , pp. 67-72 More about this Journal
Abstract
Transform variation technique is constituted the vibration status of the flash-gap recognition level (FGRL) on the distribution recognition function. The recognition level condition by the distribution recognition function system is associated with the scattering vibration system. As to search a position of the dot model, we are consisted of the distribution value with character point by the output signal. The concept of recognition level is composed the reference of flash-gap level for variation signal by the distribution vibration function. For displaying a variation of the FGRL of the maximum-average in terms of the vibration function, and distribution position vibration that was the a distribution value of the far variation of the $Dis-rf-FA-{\alpha}_{MAX-AVG}$ with $5.74{\pm}1.12$ units, that was the a distribution value of the convenient variation of the $Dis-rf-CO-{\alpha}_{MAX-AVG}$ with $1.64{\pm}0.16$ units, that was the a distribution value of the flank variation of the $Dis-rf-FL-{\alpha}_{MAX-AVG}$ with $0.74{\pm}0.24$ units, that was the a distribution value of the vicinage variation of the $Dis-rf-VI-{\alpha}_{MAX-AVG}$ with $0.12{\pm}0.01$ units. The scattering vibration will be to evaluate at the ability of the vibration function with character point by the distribution recognition level on the FGRL that is showed the flash-gap function by the recognition level system. Scattering recognition system will be possible to control of a function by the special signal and to use a distribution data of scattering vibration level.
Keywords
limpness function; limpness sensory unit motion; static sensory motion; static body sensory function;
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Times Cited By KSCI : 4  (Citation Analysis)
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