Simulation and design of PFC boost converter with constant output voltage and EMI filter

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International Conference on Information Engineering, Management and Security [ICIEMS] 302 International Conference on Information Engineering, Management and Security 2015 [ICIEMS 2015] ISBN 978-81-929742-7-9 VOL 01 Website www.iciems.in email iciems@asdf.res.in Received 10 - July - 2015 Accepted 31- July - 2015 Article ID ICIEMS050 eaid ICIEMS.2015.050 Simulation and design of PFC boost converter with constant output voltage and EMI filter Rohit B. Chachda 1, Syed A. Naveed 2 1,2 Department of Electronics and Telecommunication, MGM s JNEC Auranagabad, Maharashtra, India. Abstract: This paper perform simulation and design of PFC boost converter with EMI Filter which provides approximate unity power factor with constant output voltage.emi filter is design for the purpose of products must fulfill with international electromagnetic compatibility(emc) standards which have been developed to control conducted and radiated emissions from electrical and electronics systems. Power factor stage is require to make the input current waveform in phase to the voltage and in view of power supply like a simple resistor. The MATLAB Simulink model for proposed system is implemented and the experimental results are achieved. These experimental results are match up with the simulation results. Keywords: Power Factor Correction, Electromagnetic Interference, Diode Rectifier, Boost Converter 1.INTRODUCTION Switch mode power supplies (SMPS) design by including full wave rectifier having large energy storage capacitor. When mains instantaneous voltage exceeds voltage across capacitor, SMPSs draws current. The capacitor delivers energy to the power supply for remaining portion of the AC cycle. As a outcome, High harmonic content in input current waveform of basic SMPS and hence reduces power factor. Filter is used to remove harmonics but it expensive.. Extra circuits are required to neutralize the effect of the brief current pulses. Putting a current regulated boost chopper stage after the off-line rectifier can correct the power factor. In 2001, the European Union fixed the standard IEC/EN61000-3-2 to fixed limits on the harmonics of the AC input current up to the 40th harmonic for apparatus above 75 W. To get these requirements, modern SMPSs normally include an additional power factor stage (PFC). Due to switching action in chopper stage switch mode power supplies generate high frequency noise i.e. electromagnetic interference(emi). EMI produced due to the current being switched on and off sharply. Hence EMI filters and RF shielding are needed to reduce the interference. Literature deals with EMI concerns in Power Electronic Converters are given by Ref. [4]. Design of Boost PFC Converter using genetic algorithms is given in Ref. [5].Analysis of EMI Conduction in boost PFC Converter is existing given in Ref. [3]. A technique for EMI analysis in PFC rectifier is given in Ref. [4]. Soft switching methods in PWM converters are presented in Ref. [2] and model of inductor design is presented in Ref. [1].In the literature stated above, the hardware of boost converter using Atmel microcontroller is not existing. This paper design hardware and MATLAB Simulink model for microcontroller based boost converter as well as use of single phase model in three phase circuit. This paper is prepared exclusively for International Conference on Information Engineering, Management and Security 2015 [ICIEMS] which is published by ASDF International, Registered in London, United Kingdom. Permission to make digital or hard copies of part or all of this work for personal or classroom use is granted without fee provided that copies are not made or distributed for profit or commercial advantage, and that copies bear this notice and the full citation on the first page. Copyrights for third-party components of this work must be honoured. For all other uses, contact the owner/author(s). Copyright Holder can be reached at copy@asdf.international for distribution. 2015 Reserved by ASDF.international

International Conference on Information Engineering, Management and Security [ICIEMS] 303 2.EXPERIMENTAL SECTION This paper work is focused in the area of active PFC approach and boost topology is employed for research on AC-DC PFC preregulator system for the improvement of quality of power. Fig: 1 proposed system Fig. 1 shows that the PFC technique improves the input current taken from the mains supply and minimizes the DC bus voltage ripple. The target of PFC is to make the input current waveform in phase to the voltage and in view of power supply like a simple resistor. A] Design of DC to DC converter for PFC stage Fig. 2 shows the Boost Power Factor Correction converter. It involves boost inductor, switching device, diode rectifier, boost output voltage and boost diode capacitor. Fig. 2 Boost PFC Converter The detail explanations of the proposed Boost PFC converter are as follows MOSFET is used for switching purpose.inductor and capacitor are select by using following equation Ref. [6]. L =, C = Output voltage equation for boost converter is Vo = Where = delay angle of the boost converter. The output voltage ideally rises from 0 to infinity, as Threshold angle rise from 0 to 1.Hence it is called as boost converter. B] Design of EMI filter The Electromagnetic Interference is spread in two types first one radiation and second one is the conduction. Electromagnetic noise is created in the source because of rapid current and voltage changes, and spread through the coupling mechanisms. Since breaking a coupling path is important at either the start or the end of the circuit. Hence to break coupling path EMI filter is used between ac source and bridge rectifier. Fig. 3 EMI Filter

International Conference on Information Engineering, Management and Security [ICIEMS] 304 EMI filters can help in bypassing EMI or improving RF immunity. The filter consists of inductors and capacitors as shown in figure3. In EMI filter inductor is used to reduce the di/dt rate during its turn-off and capacitor is used to for purpose of decoupling. Resistors is used to control rise time of high speed signal. 3.SIMULATION RESULT MATLAB Simulink is used to simulate this proposed system. The simulation circuit of PFC boost converter with constant output voltageand EMI filter is shown in Figure 4.Interference is create by using an additional source connected in series with main ac source. Fig.4 : PFC boost converter with constant output voltage and EMI filter Distorted input Voltage before EMI is shown in Figure 4(a). The voltage waveform follows EMI filter is shown in Figure 4(b).Control pulses for the MOSFET are shown in Figure 4(c). Error signal for closed loop system is shown in Figure 4(D). The output voltage of closed loop system is shown in Figure 4(e). FFT analysis of input current waveform is shown in figure in 4(f). FIG. 4(A): Input voltage before EMI filter FIG. 4(B): voltage after EMI filter

International Conference on Information Engineering, Management and Security [ICIEMS] 305 Fig. 4(c): Driving pulses for mosfet Fig. 4(d): Error signal for closed loop system FIG.4 (e): Output voltage with closed loop system FIG.4(f): FFT analysis of input current waveform Fig.(5): USE OF SINGLE PHASE MODEL IN THREE PHASE CIRCUIT Single phase circuit used in each phase of common three phase source and observe the result. It can be seen that it provides approximately unity power factor and constant boosted output voltage for each phase.

International Conference on Information Engineering, Management and Security [ICIEMS] 306 4.EXPEREMENT RESULT Hardware of proposed system is shown in Fig. 6. Hardware consist of four stages i.e. EMI filter, signal conditioning, boost converter and microcontroller with driver circuit. Microcontroller PIC16F877 is used to generate control pulses that amplified by driver circuit upto 20V which is used to applied the gate of MOSFET. The experimental results are gained and presented here. The constant boosted output voltage is shown on LCD FIG.6:Hardware model of circuit 5.CONCLUSION This paper gives the result of constant dc boosted output voltage with less harmonics and approximately unity power factor. Simulation and design of PFC boost converter with constant output voltage and EMI filter is studied, simulated and fabricated. From the simulation results, it is cleared that the best power factor can be achieved. In Simulink, this model provide approximately unity power factor while using it in each phase of common three phase source. The simulation studies prove that this model is a alternative solution for power factor improvement. The circuit is tested with resistive load. The experimental results given in this paper. The experimental results match up with the simulation results. 6.ACKNOWLEDGMENTS The author would like to offer special thanks to mentor Dr S A Naveed from our institute for directing the special concerns related with this topic and organizing this issue.i also owes great deal to my colleagues for contributing their efforts in enthusiastic manner. 8.REFERENCES [1] Evans, P. and Heffernan, W., "Inductor design concepts for high frequency applications", EPE FlRENZE, pp. 1.019-1- 1.024, 2010. [2] Hua, Guichao and Lee, F.C., "Soft switching techniques in PWM converters", ieee iecon, pp. 637--643, 2011. [3] Zhang, A.W., Zhang, M.T. and Lee, F.C. et al., "Conducted EMI analysis of a boost PFC Circuit", Proc. ieee Applied Power Electronics coni, APEC-2009, Vol. 1. [4] Crebier, J.e., Brunello, M. and Ferrieux, J.P., "A new method for EMI study in PFC rectifiers", Proc. ieee Power Electronics Spc. Coni, PESC-20J J, pp. 855-860. [05] Busquets, S., Monge, G. Soremekun et al., "Design of a boost power factor correctionconverter using genetic algorithms", proc. ieee Applied Power Electronics Con!(APEC-2002), Vol. 2, pp. 1177-1182, 2011. [06] Abdul Fathah, Prof. B.D. Subudhi Design of a Boost Converter,2013. [07] Pratap Ranjan Mohanty, Prof. Anup Kumar Panda Power Factor Correction (Pfc) Of Ac-Dc System Using Boost-Converter,2014 [08] P. Ram Mohan, M. Vijaya Kumar and O. V. Raghava Reddy Simulation of a Boost PFC Converter with Electro Magnetic Interference Filter, World Academy of Science, Engineering and Technology Vol:2 2008-10-22 [09]www.wikipedia.org