Employing the Empirical Mode Decomposition to Denoise the Random Telegraph Noise
Author(s) -
Amirhossein Moshrefi,
Hossein Aghababa,
O. Shoaei
Publication year - 2021
Publication title -
international journal of engineering
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.225
H-Index - 17
ISSN - 1728-1431
DOI - 10.5829/ije.2021.34.01a.11
Subject(s) - hilbert–huang transform , noise (video) , mean squared error , signal (programming language) , computer science , signal to noise ratio (imaging) , least mean squares filter , reliability (semiconductor) , root mean square , adaptive filter , algorithm , mathematics , statistics , white noise , artificial intelligence , engineering , telecommunications , electrical engineering , physics , power (physics) , quantum mechanics , image (mathematics) , programming language
Random Telegraph Noise (RTN) is a stochastic phenomenon which leads to characteristic variations in electronic devices. Finding features of this signal may result in its modeling and eventually removing the noise in the device. Measuring this signal is accompanied by some noise and therefore we require a method to improve the Signal to Noise Ratio (SNR). As a result, the extraction of an accurate RTN is a remarkable challenge. Empirical Mode Decomposition (EMD) as a fully adaptive and signal dependent method, with no dependency to the specific function, can be an appropriate solution. In this paper, we evaluate the most recent methods and compare them with our proposed approach for the artificial and actual RTN signals. The results show the higher accuracy and efficiency by about 54%, 61% and 39% improvement in SNR, Mean Square Error (MSE) and Percent Root mean square Difference (PRD) respectively for the optimized wited method. Finally, an indicator to evaluate the reliability in digital circuits is introduced.
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