A Review of Control Technique Applied in Shunt Active Power Filter (SAPF)
Engineering and Technology Journal,
2022, Volume 40, Issue 8, Pages 140-149
AbstractIn recent years, electronic transformers and electronic devices (nonlinear loads) have increased. These loads are the source of harmonics (non-sinusoidal and distorted waves) and the interactive force that affects the performance of the power system network. Also, it badly affects the power factor and electrical energy on the scales of efficiency and quality. For this reason, a system called “Active Power Filters” has been adopted. It provides an effective alternative to traditional LC passive power filters. It can improve network performance by treating and reducing harmonics, improving power factor and quality, avoiding resonance between the filter and the network, and reducing reactive power. This paper presents a study on the shunt active power filters device and how to connect it to the distribution network and A review of the bathing control strategies in the methods of calculating current and power, methods of controlling the PWM device, the most prominent techniques for improving the PID control system, and the most prominent algorithms applied in that to improve the safety performance of the Shunt Active Power Filter (SAPF) on the one hand and to demonstrate the ability of different systems to compensate for THD on the other hand. APF performance fluctuates from one control strategy to another. It reduced (THD) between 0.9% and 13% in several control techniques applied with PWM. The aim of this paper is to illustrate the techniques applied to control the performance of the "Shunt Active Power Filter" to reduce THD
- Study of SAPF technology for processing harmonics in the network
- The THD is summarized for a literature review.
- controller techniques: reference current generation, PWM Control, and DC voltage control
- Using optimization algorithms for the PI control system to perform well in reducing THD
- Some Highlights findings of literature review:
- Pavitra Shukl 2020 
- Narendra Babu 2020 
- -Maciej Klimas 2021 
- Abhishek Srivastava 2018 
P. Suresh 2020 
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