I.V. Zhigulina

2026

1. Using the phase-energy spectrum vector field circulation to track moving objects Achievements of Modern Radioelectronics, No. 6, 2026 pp. 46-55
2. Using the phase-energy spectrum vector field circulation to track moving objects Radioengineering, No. 5, 2026 pp. 131-140
3. Polyreference discrete 2D filtering Radioengineering, No. 1, 2026 pp. 38-44

2025

1. Vortex characteristics of image phase-energy spectrum Radioengineering, No. 1, 2025 pp. 37-49

2024

1. Decision window and criterion for its use in two-dimensional discrete filtering Radioengineering, No. 11, 2024 pp. 78-87
2. Vector fields created by Fourier transform of video signals Science Intensive Technologies, No. 2, 2024 pp. 70-81
3. Scalar fields features of video sequences energy characteristics Radioengineering, No. 2, 2024 pp. 86-97

2023

1. Two-dimensional vector field of the phase energy spectrum application for motion identification Radioengineering, No. 10, 2023 pp. 96-107
2. Anisotropic discrete image filtration Radioengineering, No. 3, 2023 pp. 122-131
3. Anisotropic discrete image filtration Radioengineering, No. 3, 2023 pp. 122-131

2022

1. Accounting for the impact of the phase-frequency spectrum in signal analysis Radioengineering, No. 8, 2022 pp. 51-59

2021

1. Vector fields created by Fourier transform of video signals Radioengineering, No. 7, 2021 pp. 127-139

2020

1. Algorithm for determining the phase-frequency spectrum Radioengineering, No. 4, 2020 pp. 5-13
2. Detectors fields in the receptive mode Radioengineering, No. 3, 2020 pp. 61-67
3. Two-dimensional discrete filtering of test images Radioengineering, No. 3, 2020 pp. 64-72

2019

1. Blurred image is processed by the detectors field Radioengineering, No. 6, 2019 pp. 216-222
2. System functions of detectors fields Achievements of Modern Radioelectronics, No. 7, 2019 pp. 14-18
3. Detectors fields in saccade mode Achievements of Modern Radioelectronics, No. 6, 2019 pp. 15-20

2018

1. Objects borders identification of based on the model of drift of the detectors field Radioengineering, No. 11, 2018 pp. 23-27
2. Detectors field drift model Radioengineering, No. 11, 2018 pp. 18-22
3. A vector field of the phase-power spectrum of an image and a video sequence Radioengineering, No. 11, 2018 pp. 13-17
4. Video sequences analysis for periodic or quasi-periodic motion detection Radioengineering, No. 11, 2018 pp. 7-12
5. 2D-dimensional discrete filtering of output signals of detectors fields Radioengineering, No. 7, 2018 pp. 137-145
6. Detectors fields Radioengineering, No. 7, 2018 pp. 129-136

2017

1. Does image energy spectrum contain phase component? Radioengineering, No. 12, 2017 pp. 8-12
2. Correlation analysis of limited in space 1D-signals Radioengineering, No. 12, 2017 pp. 4-7
3. Blur at the considerable movements of the object and its fluctuations Science Intensive Technologies, No. 2, 2017 pp. 42-46

2016

1. Selection the filter-s aperture to high spatial frequencies filtering matched with an input image-s properties Radioengineering, No. 10, 2016 pp. 128-133
2. Method of repeated increase in resolution of video systems Radioengineering, No. 10, 2016 pp. 123-127
3. Model of nonlinear blurring image Radioengineering, No. 10, 2016 pp. 116-122
4. Receptive fields: images and video sequences processing Radioengineering, No. 10, 2016 pp. 104-109
5. Features models of frequency characteristics interframe differences Science Intensive Technologies, No. 1, 2016 pp. 5-12

2015

1. Features models of frequency characteristics interframe differences Science Intensive Technologies, No. 12, 2015 pp. 95-102
2. Linear blur Radioengineering, No. 12, 2015 pp. 147-154
3. ON-OFF» processing of video sequences Radioengineering, No. 6, 2015 pp. 116-121
4. Models of frequency characteristics interframe differences Science Intensive Technologies, No. 4, 2015 pp. 41-47
5. Methods of processing video sequences based on the analysing the energy parameters of the video images Radioengineering, No. 4, 2015 pp. 112-119

2013

1. Algorithms of movement detection on the edges of the image for video sequence processing Radioengineering, No. 9, 2013 pp. 83-86
2. Methodology of modeling interframe differences for the frequency responses Radioengineering, No. 9, 2013 pp. 76-82

2012

1. Effect of detection minimum contrast objects Achievements of Modern Radioelectronics, No. 4, 2012 pp. 47-51
2. Possibilities for automatic recognition of images moving Achievements of Modern Radioelectronics, No. 4, 2012 pp. 43-47
3. Correlation Analysis of Images by Isotropic Standards Radioengineering, No. 4, 2012 pp. 43-46
4. Application of Double Differences of Frequences Characteristics for Videosignals Processing Radioengineering, No. 1, 2012 pp. 78-82

2011

1. Double Differences of Frequency Characteristics Radioengineering, No. 5, 2011 pp. 46-51
2. Biologically Similar Algorithms for Motion Evaluation in Machine Vision Systems Radioengineering, No. 5, 2011 pp. 41-45

2010

1. (u, v)- Type Filters For Image Processing Radioengineering, No. 12, 2010 pp. 61-64
2. Identification of Object Movement on the Basic of Interframe Differences of Frequency Features Radioengineering, No. 12, 2010 pp. 55-60
3. The System for Execution of Parallel Computing Processes Radioengineering, No. 5, 2010 pp. 55-59
4. Determination of Objects Movement Parameters by the Image Based on the Interframe Differences of Frequency Response Radioengineering, No. 5, 2010 pp. 51-54

2009

1. Application of Space Phase-Frequency Response for Motion Estimation Achievements of Modern Radioelectronics, No. 11, 2009 pp. 61-63
2. Preliminary Processing of Images Radioengineering, No. 2, 2009 pp. 78
3. Initial Form Function of Efficiency Twodimensional Discrete Filtration Radioengineering, No. 2, 2009 pp. 73