Adjustment of adaptive digital filter coefficients in modular codes

Adjustment of adaptive digital filter coefficients in modular codes

The main advantage of adaptive digital filters is the minimum error of their output response. It is reached by recalculation of values of coefficients of the filter. The conducted researches have shown that the known algorithms of adjustment of coefficients of the adaptive digital filter are inexped...

Szczegółowa specyfikacja

Zapisane w:

Opis bibliograficzny
Główni autorzy:	Kalmykov, I. A., Калмыков, И. А.
Format:	Статья
Język:	English
Wydane:	Institute of Electrical and Electronics Engineers Inc. 2018
Hasła przedmiotowe:	Adaptive filter Digital filter Modular code Orthogonal bases Output sample Rank of a number Residue number system (RNS)
Dostęp online:	https://www.scopus.com/record/display.uri?eid=2-s2.0-85048010261&origin=resultslist&sort=plf-f&src=s&nlo=1&nlr=20&nls=afprfnm-t&affilName=nort+caucas+fed+univ&sid=762e6d30544023d6a322a94577ba172b&sot=afnl&sdt=afsp&sl=53&s=%28AF-ID%28%22North+Caucasus+Federal+University%22+60070541%29%29&relpos=24&citeCnt=0&searchTerm= https://dspace.ncfu.ru:443/handle/20.500.12258/627
Etykiety:	Dodaj etykietę Nie ma etykietki, Dołącz pierwszą etykiete!

Podobne zapisy

Technique to adjust adaptive digital filter coefficients in Residue Number System based filters
od: Kalmykov, I. A., i wsp.
Wydane: (2021)

A new method for adaptive median filtering of images
od: Lyakhov, P. A., i wsp.
Wydane: (2019)

Two methods of adaptive median filtering of impulse noise in images
od: Chervyakov, N. I., i wsp.
Wydane: (2018)

Redundant modular codes for development of fault-tolerant systems of satellite identification
od: Kalmykov, I. A., i wsp.
Wydane: (2020)

Modification of Schnorr Authentication Protocol Using Modular Codes
od: Kalmykov, I. A., i wsp.
Wydane: (2023)

Development of an Imitation-Resistant Satellite Authentication Protocol Using Modular Codes of Residue Number System
od: Kalmykov, I. A., i wsp.
Wydane: (2023)

Implementation of digital filters in the residue number system
od: Veligosha, A. V., i wsp.
Wydane: (2018)

Error correction method in modular redundant codes
od: Berezhnoy, V. V., i wsp.
Wydane: (2022)

Analysis of the quantization noise of linear time-invariant filters for image processing
od: Lyakhov, P. A., i wsp.
Wydane: (2019)

High-speed smoothing filter in the residue number system
od: Chervyakov, N. I., i wsp.
Wydane: (2018)

Parallel-pipeline implementation of digital signal processing techniques based on modular codes
od: Kalmykov, I. A., i wsp.
Wydane: (2018)

Scaling algorithm designed to reduce circuit costs for modular digital filters
od: Kalmykov, I. A., i wsp.
Wydane: (2020)

Digital filter architecture with calculations in the residue number system by winograd method F(2 × 2, 2 × 2)
od: Valueva, M. V., i wsp.
Wydane: (2021)

Bilateral and Median Filter Combination for High-Quality Cleaning of Random Impulse Noise in Images
od: Lyakhov, P. A., i wsp.
Wydane: (2022)

The implementation of information and communication technologies with the use of modular codes
od: Yurdanov, D. V., i wsp.
Wydane: (2018)

High-performance digital image filtering architectures in the residue number system based on the Winograd method
od: Valueva, M. V., i wsp.
Wydane: (2022)

Implementation of non-positional digital filters
od: Veligosha, A. V., i wsp.
Wydane: (2018)

About one property of number rank in RNS
od: Babenko, M. G., i wsp.
Wydane: (2021)

Fast Operation of Determining the Sign of a Number in RNS Using the Akushsky Core Function
od: Shiriaev, E. M., i wsp.
Wydane: (2023)

Implementation of Smoothing Image Filtering in the Residue Number System
od: Chervyakov, N. I., i wsp.
Wydane: (2019)

On the algorithmic complexity of digital image processing filters with winograd calculations
od: Lyakhov, P. A., i wsp.
Wydane: (2022)

New method for detecting and removing random-valued impulse noise from images
od: Lyakhov, P. A., i wsp.
Wydane: (2023)

High-performance digital filtering on truncated multiply-accumulate units in the residue number system
od: Lyakhov, P. A., i wsp.
Wydane: (2020)

Application of noise-resistant modular codes to increase the fault tolerance of infocommunication systems with OFDMD
od: Kalmykov, I. A., i wsp.
Wydane: (2021)

Error correction of digital signal processing devices using non-positional modular codes
od: Kalmykov, I. A., i wsp.
Wydane: (2018)

A new method of cleaning video from impulse noise
od: Chervyakov, N. I., i wsp.
Wydane: (2020)

Effect of RNS moduli set selection on digital filter performance for satellite communications
od: Chervyakov, N. I., i wsp.
Wydane: (2018)

Performance impact of error correction codes in rns with returning methods and base extension
od: Shiriaev, E. M., i wsp.
Wydane: (2022)

3d-generalization of impulse noise removal method for video data processing
od: Chervyakov, N. I., i wsp.
Wydane: (2020)

Application of correcting polynomial modular codes in infotelecommunication systems
od: Kalmykov, I. A., i wsp.
Wydane: (2020)

Uncoded Video Data Stream Denoising in a Binary Symmetric Channel
od: Orazaev, A. R., i wsp.
Wydane: (2023)

Developing "friend or foe" protocol in residue number system code for satellite authentication
od: Kalmykov, I. A., i wsp.
Wydane: (2022)

Increasing fast estimation of assessment of navigation parameters for the UAV based on a linear Kalman filter
od: Isaev, M. A., i wsp.
Wydane: (2021)

Combined Use of a Bilateral and Median Filter to Suppress Gaussian Noise in Images
od: Baboshina, V. A., i wsp.
Wydane: (2022)

Digital Filter Architecture Based on Modified Winograd Method F(2× 2, 5× 5) and Residue Number System
od: Valuev, G. V., i wsp.
Wydane: (2023)

Mathematical Modeling of Signal Processing Using Discrete Wavelet Transform and Non-Positional Modular Code
od: Kalmykov, I. A., i wsp.
Wydane: (2023)

Reliability improvement of information systems by residue number system code
od: Nazarov, A. S., i wsp.
Wydane: (2018)

Development of a Mathematical Model for Performing the Haar Wavelet Transform in Parallel Modular Codes
od: Kalmykov, I. A., i wsp.
Wydane: (2023)

Improved modular division implementation with the akushsky core function
od: Babenko, M. G., i wsp.
Wydane: (2022)

A high-speed division algorithm for modular numbers based on the chinese remainder theorem with fractions and its hardware implementation
od: Chervyakov, N. I., i wsp.
Wydane: (2019)