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    Method of Identifying Buck Converter Load Without Load Current Measurements

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    https://www.riss.kr/link?id=A108488998

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    This paper proposes a novel method to identify the load without measuring the load current. The variation of load current in the Buck converter affects the feedback performance of the converter, influencing the maintenance of steady output voltage. To ensure the long-period and high-stability operation of the Buck converter. This paper investigates the monitoring of load changes without extra measurement sensors in the original topology. This method mainly utilizes load regulation characteristics in the Buck converter load regulation. When it is necessary to monitor the load condition, the "plug-in" observer will be connected in parallel with the load. Thus the load can be identified by measuring the voltage and bypass current through the external observer. Compared with existing identification methods for converter load, this method avoids measuring the internal parameters and variables inside the converter but only measures the output voltage and bypass current on the output side. The identification values can also be applied to determine the operating status of the converter and further predict the possible fault and failure aroused from the load. In conclusion, SIMETRIX simulations and experiments for three switching converter products under different power levels can validate the proposed method.
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    This paper proposes a novel method to identify the load without measuring the load current. The variation of load current in the Buck converter affects the feedback performance of the converter, influencing the maintenance of steady output voltage. To...

    This paper proposes a novel method to identify the load without measuring the load current. The variation of load current in the Buck converter affects the feedback performance of the converter, influencing the maintenance of steady output voltage. To ensure the long-period and high-stability operation of the Buck converter. This paper investigates the monitoring of load changes without extra measurement sensors in the original topology. This method mainly utilizes load regulation characteristics in the Buck converter load regulation. When it is necessary to monitor the load condition, the "plug-in" observer will be connected in parallel with the load. Thus the load can be identified by measuring the voltage and bypass current through the external observer. Compared with existing identification methods for converter load, this method avoids measuring the internal parameters and variables inside the converter but only measures the output voltage and bypass current on the output side. The identification values can also be applied to determine the operating status of the converter and further predict the possible fault and failure aroused from the load. In conclusion, SIMETRIX simulations and experiments for three switching converter products under different power levels can validate the proposed method.

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    참고문헌 (Reference)

    1 Jia P, "parameter design of damping networks for the superbuck converter" 28 (28): 3845-3859, 2013

    2 Rezaee S, "Voltage source converters connected to very weak grids : accurate dynamic modeling, small-signal analysis, and stability improvement" 8 : 201120-201133, 2020

    3 Liu B, "Stabilization of a cascaded AC–DC–DC system with small bus capacitance based on small signal analysis" 54 (54): 4650-4659, 2018

    4 Veerachary M, "Stability Analysis of higher-order buck converters: participation factors approach" IEEE 2020

    5 Guan R, "Small-signal stability analysis of the interactions between voltage source converters and DC current flow controllers" 7 : 2-12, 2020

    6 Li Y, "Small-signal stability analysis method for hybrid AC–DC systems with multiple DC buses" 11 (11): 17-27, 2021

    7 Zhu Y, "Single-phase on-line uninterruptible power supply with low load regulation" IEEE 2021

    8 Peng Y, "Parameters identification of buck converter based on dynamic characteristics" Aalborg University 2019

    9 Riba J-R, "Parameter identification of dc-dc converters under steady-state and transient conditions based on white-box models" 7 : 393-, 2018

    10 Hong-ming Z, "Optimal design of hydraulic cylinder based on adaptive firefly algorithm" 2020

    1 Jia P, "parameter design of damping networks for the superbuck converter" 28 (28): 3845-3859, 2013

    2 Rezaee S, "Voltage source converters connected to very weak grids : accurate dynamic modeling, small-signal analysis, and stability improvement" 8 : 201120-201133, 2020

    3 Liu B, "Stabilization of a cascaded AC–DC–DC system with small bus capacitance based on small signal analysis" 54 (54): 4650-4659, 2018

    4 Veerachary M, "Stability Analysis of higher-order buck converters: participation factors approach" IEEE 2020

    5 Guan R, "Small-signal stability analysis of the interactions between voltage source converters and DC current flow controllers" 7 : 2-12, 2020

    6 Li Y, "Small-signal stability analysis method for hybrid AC–DC systems with multiple DC buses" 11 (11): 17-27, 2021

    7 Zhu Y, "Single-phase on-line uninterruptible power supply with low load regulation" IEEE 2021

    8 Peng Y, "Parameters identification of buck converter based on dynamic characteristics" Aalborg University 2019

    9 Riba J-R, "Parameter identification of dc-dc converters under steady-state and transient conditions based on white-box models" 7 : 393-, 2018

    10 Hong-ming Z, "Optimal design of hydraulic cylinder based on adaptive firefly algorithm" 2020

    11 Rojas-Dueñas G, "Nonlinear least squares optimization for parametric identification of DC–DC converters" 36 (36): 654-661, 2021

    12 Yang XS, "Nature-inspired metaheuristic algorithms" Luniver Press 2010

    13 Nepomuceno EG, "Multiobjective parameter estimation for non-linear systems : Affine information and least-squares formulation" 80 (80): 863-871, 2007

    14 Hafi z F, "Multiobjective evolutionary approach to grey-box identification of buck converter" 67 (67): 2016-2028, 2020

    15 Yang YuDe ; Qiu JinLian ; Qin ZhiJun, "Multidimensional Firefly Algorithm for Solving Day-Ahead Scheduling Optimization in Microgrid" 대한전기학회 16 (16): 1755-1768, 2021

    16 Pinares G, "Modeling and analysis of VSCbased HVDC systems for DC network stability studies" 31 (31): 848-856, 2016

    17 Liao Y, "Low-frequency stability analysis of single-phase system with $dq$-frame impedance approach—Part II : stability and frequency analysis" 54 (54): 5012-5024, 2018

    18 Middlebrook RD, "Input filter considerations in design and application of switching regulators" 366-382, 1976

    19 Zhong Q, "Impedance-sum stability criterion for power electronic systems with two converters/sources" 7 : 21254-21265, 2019

    20 Beerten J, "Identification and smallsignal analysis of interaction modes in VSC MTDC systems" 31 (31): 888-897, 2016

    21 Zhang C, "Harmonic-domain SISO equivalent impedance modeling and stability analysis of a single-phase grid-connected VSC" 35 (35): 9770-9783, 2020

    22 Azer P, "Generalized state space average model for multi-phase interleaved buck, boost, and buck-boost DC-DC converters : transient, steady-state and switching dynamics" 8 : 77735-77745, 2020

    23 Wu C, "Fault diagnosis of recessive weakness in superbuck converter based on KPCA-IPNN*" 2020

    24 Wenxin Yu ; Shoudao Huang ; Junnian Wang, "Fault Detection Based on a Combined Approach of FA-CP-ELM with Application to Wind Turbine System" 대한전기학회 16 (16): 547-557, 2021

    25 Marwa Ben Slimene ; Abdelaziz Salah Saidi ; Mohamed Arbi Khlifi, "Estimation of Hydropower Synchronous Generator Parameters Through Field Simulations of Modified Standard Tests" 대한전기학회 16 (16): 91-99, 2021

    26 Karppanen M, "Dynamical modeling and characterization of peak-current-controlled superbuck converter" 2008

    27 Albert JR, "Design and development of symmetrical super-lift DCAC converter using firefly algorithm for solarphotovoltaic applications" 14 (14): 261-269, 2020

    28 Premkumar M ; Sumithira T.R, "Design and Implementation of New Topology for Solar PV Based Transformerless Forward Microinverter" 대한전기학회 14 (14): 11-152, 2019

    29 Ranganathan Sripriya ; Sathi Rama Reddy, "Design and Analysis of Fast Response Sliding Mode Controller for Quadratic Boost Converter based Hybrid PV/Wind System in DC Micro-grid" 대한전기학회 16 (16): 2561-2571, 2021

    30 Li X, "Approximate discrete-time modelling of dc-dc converters with consideration of the effects of pulse width modulation" 33 (33): 7071-7082, 2018

    31 Al-Greer M, "Advances on system identification techniques for DC-DC switch mode power converter applications" 34 (34): 6973-6990, 2019

    32 Algreer M, "Active online system identifi cation of switch mode dc–dc power converter based on efficient recursive DCD-IIR adaptive filter" 27 (27): 4425-4435, 2012

    33 Lin BH, "A non-invasive method for estimating circuit and control parameters of voltage source converters" 66 (66): 4911-4921, 2019

    34 Hanwoong Ahn ; 박현종 ; 김창현 ; 이형우, "A Review of State‑of‑the‑art Techniques for PMSM Parameter Identifcation" 대한전기학회 15 (15): 1177-1187, 2020

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