Design of Multifunctional Electronic Load Based on Active Power Filter

doi:10.16628/j.cnki.2095-8188.2022.04.007

Abstract

Abstract:

In order to solve the load problem of in-factory commissioning and factory inspection of power quality governance products,a multifunctional electronic load based on active power filter (APF) is proposed.The load consists of two APFs and a transformer.The two APFs adopt different control strategies.Switching the working mode of the device through monitoring,the active power,reactive power,harmonic,interharmonic and unbalanced currents are generated,and the flexible adjustment and control can be achieved.Simulation and experiment verify the feasibility and effectiveness of the device.

Key words: power quality governance products, active power filter, multifunctional electronic load, control strategy

CLC Number:

TM761

LI Xinyuan, GAO Peng, YU Haoran, SHEN Zhendong, WANG Baichao, LIN Yan. Design of Multifunctional Electronic Load Based on Active Power Filter[J]. LOW VOLTAGE APPARATUS, 2022, 0(4): 41-46.

Figures/Tables 17

References 10

[1]	张小伟, 孙金国, 杜路路, 等. 智能配电台区控制器的研究与设计[J]. 电器与能效管理技术, 2017(5):29-35.
[2]	王耿耿, 孟高军, 孙玉坤, 等. 微电网并网环境下电能质量分析与研究综述[J]. 电器与能效管理技术, 2019(15):81-89.
[3]	甘子松. 3 kW馈能型电子负载的研制[D]. 南京: 东南大学, 2016.
[4]	吕东. 基于数字控制的馈能式直流电子负载设计[D]. 济南: 山东大学, 2014.
[5]	薛明, 王影纯. 大负载电源产品出厂前试验节能装置[J]. 电声技术, 1996(6):44-46.
[6]	TSAI M T, TSAI C. Energy recycling for electrical AC power source burn-in test[J]. IEEE Transaction on Industrail Electronics, 2000, 47(4):974-976.
[7]	BENJIANARASUT K, BENJANARASUT J, NEAMMANE B. Single phase AC electronic load with energy recovery:2017 International Electrical Engineering Congress (i EECON)[C]. 2017.
[8]	李芬. 单相背靠背绿色节能试验系统关键技术研究[D]. 武汉: 华中科技大学, 2010.
[9]	钟晓剑, 冯霞, 徐群伟, 等. 基于ABC坐标系的三相四线并联型APF控制策略[J]. 电器与能效管理技术, 2019(23):889-894.
[10]	李新元, 马骏, 高鹏, 等. 基于相序自适应的三相电能质量调节装置[J]. 电器与能效管理技术, 2021(3):61-67.

次数	b₁=b₂	a₁	a₂
1	0.007 999 6	1.999 826 1	0.999 9
1.5	0.029 995 5	1.999 524 8	0.999 9
2	0.007 997 9	1.999 168 6	0.999 8
2.5	0.007 996 7	1.998 693 6	0.999 7
3	0.009 994 5	1.998 179 8	0.999 6
3.5	0.008 793 8	1.997 627 2	0.999 6
4	0.012 765 7	1.989 601 0	0.999 7
4.5	0.015 934 0	1.983 876 0	0.999 6
5	0.010 490 2	1.996 876 3	0.999 4
7	0.000 795 9	1.969 050 0	0.999 9
9	0.000 793 0	1.948 976 0	0.999 9
11	0.001 184 7	1.923 979 0	0.999 9
13	0.003 929 0	1.894 122 0	0.999 9
15	0.000 078 1	1.859 480 0	0.999 9
17	0.000 077 6	1.820 141 3	0.999 9

电流	给定形式
有功	A_msin(ωt) B_msin(ωt-2/3π) C_msin(ωt+2/3π) A_m=B_m=C_m
不平衡	A_msin(ωt) B_msin(ωt-2/3π) C_msin(ωt+2/3π) A_m、B_m和C_m不全相等
感性无功	A_mcos(ωt) B_mcos(ωt-2/3π) C_mcos(ωt+2/3π) A_m、B_m和C_m为正数
容性无功	A_mcos(ωt) B_mcos(ωt-2/3π) C_mcos(ωt+2/3π) A_m、B_m和C_m为负数
谐波	A_msinkωt B_msink(ωt-2/3π) C_msink(ωt+2/3π) k>0且k为整数
间谐波	A_msinkωt B_msink(ωt-2/3π) C_msink(ωt+2/3π) k>0且k为非整数

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