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(1)

APEC 2002

1

Oscar Garcia

Universidad Politécnica de Madrid [email protected]

SPAIN

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3 3

3 Basic principles: classical PF pre-regulators Basic principles: classical PF pre-regulators Basic principles: classical PF pre-regulators 2 2

2 Regulations Regulations Regulations 1 1

1 Introduction Introduction Introduction

4 4

4 Sinusoidal line current alternatives Sinusoidal line current alternatives Sinusoidal line current alternatives

2XWOLQHRI Φ SDUW

5 5

5 Non sinusoidal line current alternatives Non sinusoidal line current alternatives Non sinusoidal line current alternatives

(2)

APEC 2002

3

‡ 0RVW RI WKH WLPH WKH VRXUFH LV XQXWLOL]HG

LOAD OR DC/DC

~ V

AC

I

AC

I

C V

C

Line impedance

‡ $& PDLQV 9 DQG +]

‡ /LQH LPSHGDQFH Ω DQG µ+

‡ )RU : DQG  YROWDJH ULSSOH & µ)

([DPSOHUHFWLILHU

Time

40ms 50ms 60ms 70ms 80ms 90ms 100ms

I(L1) -10A

0A 10A0V V(D11:2) 100V 200V 300V 400V

SEL>>

Voltage on capacitor

Line current

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‡ $YDLODEOH SRZHU IURP PDLQV LV UHGXFHG

VOLTAGE

T.H.D.

=1.72%

Time

40ms 50ms 60ms 70ms 80ms 90ms 100ms

V(D10:1,D11:1) -400V

0V 400V

Line voltage

0 0.2 0.4 0.6 0.8 1 1.2 1.4

1 3 5 7 9 11 13 15 17 19

Harmonic number

RMS current

Fundamental harmonic

accounts for active power

(3)

APEC 2002

5

‡ 3) GHSHQGV RQ

¾ +DUPRQLF FRQWHQW

¾ 'LVSODFHPHQW DQJOH EHWZHHQ FXUUHQW DQG YROWDJH

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‡ 7KHVH PDJQLWXGHV JLYH DQ LGHD RI WKH TXDOLW\ RI WKH ZDYHIRUP

= ⋅

=

T T

T

dt t T i dt t T u

dt t i t T u power

Aparent power Active F

P

0 2 0

2 0

) 1 ( ) 1 (

) ( ) 1 ( .

.

RMS RMS RMS RMS

I I I D I

H T

, 1

2 , 4 2

, 3 2

,

2

...

. .

. + + +

=

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7RWDO +DUPRQLF 'LVWRUWLRQ +DUPRQLF 'LVWRUWLRQ

φ k k φ

I F I

P d

RMS

RMS ⋅ = ⋅

= cos

. . 1 ,

k d k φ

‡ ,I YROWDJH LV VLQXVRLGDO

v i

k d < 1 k θ < 1

i v k d < 1 k θ = 1

i v v

i k d = 1 k θ < 1

6RPHH[DPSOHV

I RMS =2.63A I RMS =1.44A

I RMS =1.30A I RMS =1.50A

ϕ =30º

k d = 1 k θ = 1

P.F. = 0.50 T.H.D. = 172%

P.F. = 1.00 T.H.D. = 0%

P.F. = 0.90 T.H.D. = 47%

P.F. = 0.87 T.H.D. = 0%

(4)

APEC 2002

7

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None of them requires unity power factor None of them requires unity power None of them requires unity power factor factor

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5HJXODWLRQV

5HJXODWLRQV

(5)

APEC 2002

9

,(& (1

‡ 'HULYHG IURP ,(&  (1

‡ (TXLSPHQW ZLWK LQSXW FXUUHQW ≤ $ SHU SKDVH

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,(& (1

Motor driven

Class A Class A Class D Class D Class C Class C Class B Class B

YES

NO NO NO NO

NO Balanced

equipment

Portable tool

Lightning equipment

Special shape and 75<P<600W

YES

YES

YES

YES

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(6)

APEC 2002

11

,(& (1

mA/W Class D A

RMS

3.40 2.30

1.90 1.14

1.00 0.77

0.50 0.40

0.35 0.33

Class A A

RMS

2.30 1.14 0.77 0.40 0.33 Harmonic

3 5 7 9 11

3.85/n 2.25/n

2.25/n 15 to 39

0.29 0.21

0.21 13

1.08 0.43 0.30 2

4 6

1.84/n 8 to 40

Ev e n ha rm on ic s Od d ha rm oni c s

0 0.5 1 1.5 2 2.5

3 5 7 9 11 13

Harmonic number

m a x. RM S cur ren t ( A )

Class A Class D

300W

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More than 5% of the time out of the envelope

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1.62 0.64 0.45 2

4 6

2.76/n 8 to 40

Class C

% 30*P.F.

10 7 5 3 Class B

A

RMS

3.45 1.71 1.15 0.60 0.49 Harmonic

3 5 7 9 11

3 3.375/n

15 to 39

3 0.31

13

2

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(7)

APEC 2002

13

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0.0 0.5 1.0 1.5 2.0 2.5 3.0 3.5

3 5 7 9 11 13 15 17 19

Harmonic number

RMS current

Class A Class B Class C Class D

Example:

300W rectifier

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3RZHU :

3RZHU IDFWRU 

7+' 

3RZHU :

3RZHU IDFWRU 

7+' 

(8)

APEC 2002

15

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(9)

APEC 2002

17

,(((RGGKDUPRQLFVOLPLWV

h<11 h<11

4.0 4.0 7.0 7.0 10.0 10.0 12.0 12.0 15.0 15.0 I I SC SC / /I I l l (%)

< 20

< 20 20 < 50 20 < 50 50 < 100 50 < 100 100 < 1000 100 < 1000

> 1000

> 1000

17 17 ≤h<23 ≤ h<23

1.5 1.5 2.5 2.5 4.0 4.0 5.0 5.0 6.0 6.0 11 11 ≤ ≤h<17 h<17

2.0 2.0 3.5 3.5 4.5 4.5 5.5 5.5 7.0 7.0

35<h 35<h

0.3 0.3 0.5 0.5 0.7 0.7 1.0 1.0 1.4 1.4 23 23 ≤ ≤h<35 h<35

0.6 0.6 1.0 1.0 1.5 1.5 2.0 2.0 2.5 2.5

T.D.D.

T.D.D.

5 5 8 8 12 12 15 15 20 20

0 2 4 6 8 10 12 14 16

3 5 7 9 11 13 15 17 19 21 23 25 27 29 Harmonic number

% of distortion respect fundamental

Isc/IL>1000 100<Isc/IL<1000 50<Isc/IL<100 20<Isc/IL<50 Isc/IL<20

6WUDWHJLHV

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V V I I

DC/DC CONVERTER

CONTROL

~

6WUDWHJLHV 6WUDWHJLHV 6WUDWHJLHV

IT D OES MEET NOT REG ULA

TIO NS

(10)

APEC 2002

19

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DC/DC CONVERTER P.F.C.

CONTROL CONTROL

~

SINGLE STAGE CONVERTER

~

CONTROL

Diode rectifier + DC/DC stage

Single-stage Two stages

Control loops 1 1 2 Line current

Very distorted Meet regulations

Sinusoidal

Voltage storage capacitor

Fixed Not controlled

Controlled Cost

Low Medium

High

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%DVLFSULQFLSOHVFODVVLFDO

%DVLFSULQFLSOHVFODVVLFDO 3)SUHUHJXODWRU

3)SUHUHJXODWRU

(11)

APEC 2002

21

LO A D

~

I

V CONVERTIDOR

CC/CC

RESISTOR EMULATOR

R

V I

P.F. = 1 P.F. = 1 T.H.D. = 0 T.H.D. = 0

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V

RECT

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IN,AVG

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RECT

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RECT

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O

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V

AC,PK

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AC,RMS

·I

AC,RMS

2P

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(12)

APEC 2002

23

3RZHUEDODQFH

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2XWSXW VLGH %XON FDSDFLWRU %XON FDSDFLWRU %XON FDSDFLWRU

P

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DC/DC CONVERTER V

RECT

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V

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~ P.F.C.

7:267$*($3352$&+

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(13)

APEC 2002

25

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v

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v

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All circuitry is included in commercial ICs All circuitry is included

All circuitry is included in in commercial ICs commercial ICs

(14)

APEC 2002

27

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D

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(15)

APEC 2002

29

%RRVWFRQYHUWHUDYHUDJHFXUUHQWPRGH

O IN

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t

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Boost converter with constant power load

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9ROWDJH ORRS 9ROWDJH ORRS

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Gid 0 40 80

f

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area High bandwidth High bandwidth

(16)

APEC 2002

31

([DPSOHJRRGDQGEDGFRQWUROORRSGHVLJQ

220ms 230ms 240ms 250ms 260ms 270ms 280ms

220ms 230ms 240ms 250ms 260ms 270ms 280ms

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220ms 230ms 240ms 250ms 260ms 270ms 280ms

0V 5.0V

Error amplifier voltage

Line current

Output voltage

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3($. &855(17 02'( &21752/

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(17)

APEC 2002

33

6LQXVRLGDOOLQHFXUUHQW DOWHUQDWLYHV

6LQXVRLGDOOLQHFXUUHQW 6LQXVRLGDOOLQHFXUUHQW

DOWHUQDWLYHV DOWHUQDWLYHV

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DC/DC CONVERTER P.F.C.

CONTROL CONTROL

~

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They are good voltage followers without current loop They are They are good good voltage followers without current loop voltage followers without current loop

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(18)

APEC 2002

35

9ROWDJHIROORZHU'&0%RRVWFRQYHUWHU

IN O IN

O

V V V

L V RT

= − 1

2

2

i L

i T

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T D

C L

V

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V

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T d( ω t) L

t

V

IN

(ω ) L

V t V

IN

(ω ) −

O

2 1

,

,

2 d

L T I

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= V

IN

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2 2

,

,

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V V

V L

T I V

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,

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2 d

V V

V L

T I V

IN O

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AVG

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=

I L,AVG

(19)

APEC 2002

37

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51

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APEC 2002

61

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[9] IEC 1000/3/2 International Standard, “Limits for harmonic current emissions (equipment input current <16A per phase)”, 1995.

[15] Amendment 14:2000 to EN61000-3-2, OJ 14-12-2000

[16] “IEEE 519 Recommended Practices and Requirements for Harmonic Control in Electrical Power Systems”, IEEE Industry Applications Society/ Power Engineering Society, 1993

[24] D. Chambers, D. Wang, “Dynamic power factor correction in capacitor input off line converters”, Powercon 6.

[24] G. Spiazzi, “Analysis of Buck Converters Used as Power Factor Preregulators”, IEEE PESC 1997.

[24] I. Barbi, S.A. Oliveira, “Sinusoidal Line Current Rectification at Unity Power Factor with Boost Quasi Resonant Converters”, IEEE APEC 1990.

[24] M. J. Kocher, R. L. Steigerwald, “A AC to DC Converter with High Quality Input waveforms”, IEEE PESC 1982.

[24] M.J. Schutten, R.L. Steigerwald, M.H. Kheraluwala, “Characteristics of Load Resonant Converters Operated in a High Power Factor Mode”, IEEE APEC 1991.

[24] O.R. Schmidt, “Quasi resonant AC/DC forward converter with sinusoidal input current”, INTELEC 1994.

[24] R. Watson, G.C. Hua, F.C. Lee, "Characterization of an Active Clamp Flyback Topology for Power Factor Correction Applications", IEEE APEC, 1994.

[26] L. H. Dixon, “High Power Factor Pre-regulators for Off-line Power Supplies”, Unitrode Power Supply Design Seminar 1988.

[26] Unitrode Application Note U-111, “Practical Considerations in Current Mode Power Supplies”, Unitrode Product & Applications Handbook 1995-96.

[27] R. Redl, N.O. Sokal, “Near optimum dynamic regulation of dc-dc converters using feedforward of output current and input voltage, with current mode control”, IEEE Transactions on Power Electronics Vol. 1.

[29] L. Dixon, “Average current mode control of switching power supplies”, Unitrode power supply design seminar 1990.

[30] R.B. Ridley, “Average small signal analysis of the boost power factor correction circuit”, Virginia Power Electronics Center 1989.

[30] D.S.L. Simonetti, J. Sebastian, J. Uceda, “A small signal model for SEPIC, Cuk and flyback converters as power factor preregulators in discontinuous conduction mode”, IEEE PESC 1993.

[32] K.K. Sen, A.E. Emanuel, “Unity power factor single phase power conditioning”, IEEE PESC 1987.

[32] C. Zhou, R.B. Ridley, F.C. Lee, “Design and analysis of a hysteretic boost power factor correction circuit”, IEEE PESC 1990.

[32] K. Nalbant, J. Klein, “Design of a 1kW power factor correction circuit”, PCIM conference 1990.

[32] C. Zhou, M.M. Jovanovic, “Design trade-offs in continuous current mode controlled boost power factor correction circuit”, Virginia Power Electronics Center 1992.

[34] H. Endo, T. Yamashita, T. Sugiura, “A High Power Factor Buck Converter”, IEEE PESC 1992.

[34] J. Sebastian, J. Uceda, J.A. Cobos, J. Arau, “Using SEPIC topology for Improving Power Factor in Distributed Power Supply Systems”, EPE journal Vol.3, No.2, June 1993.

[34] J. Sebastián, J.A.Cobos, J.M. Lopera, J.Uceda, ”The determination of the boundaries between continuous and discontinuous conduction mode in PWM DC to DC converters used as power factor pre-regulators”, IEEE Transactions on power electronics, Septiembre 1995, Vol. 10, No. 5.

[34] M. Brkovic, S. Cuk, “Input Current Shaper Using Cuk Converter” INTELEC 1992.

[36] K.H. Liu, and Y. L. Lin, “Current Waveform Distortion in Power Factor Correction Circuits Employing Discontinuous Mode Boost Converters”, IEEE PESC 1989 [36] D.Simonetti, J. Sebastián, José A. Cobos, J. Uceda, ”The continuous-discontinuous conduction boundary of a boost PFP fed by universal input”, Congreso

Internacional de Electrónica de Potencia (CIEP), 1995.

[38] J.S. Lai, D. Chen, “Design considerations for power factor correction boost converter operating at the boundary of continuous conduction mode and discontinuous conduction mode”, IEEE APEC 1993.

[39] W. Tang, F.C. Lee, R.B. Ridley, I. Cohen, “Charge control: modeling, analysis and design” Virginia Power Electronics Center 1992.

[40] R. Erickson, M. Madigan, S. Singer, “Design of a Simple High Power Factor Rectifier Based on the Flyback Converter”, IEEE APEC 1990.

5HIHUHQFHV,,>VOLGHQXPEHU@

[41] R. Redl, L. Balogh, “RMS, DC, peak, and harmonic currents in high frequency power factor correctors with capacitive energy storage”, IEEE APEC 1992.

[42] G. Hua, C.S. Leu, F.C. Lee, “Novel zero voltage transition PWM converters”, IEEE PESC 1992.

[43] J. Sebastián, P. Villegas, F. Nuño, M.M. Hernando, “Very Efficient Two Input DC to DC Switching Post-Regulators”, IEEE PESC 1996.

[45] J.P. Gegner, C. Hung, C.Q. Lee, "High Power Factor AC to DC converter using a Reactive Shunt Regulator”, IEEE PESC 1994.

[46] Y. Jiang, F.C. Lee, G. Hua, W. Tang, "A Novel Single-Phase Power Factor Correction Scheme", IEEE APEC 1993 [46] Y. Jiang, F.C. Lee, "Single Stage Single-Phase Parallel Power Factor Correction Scheme", IEEE PESC 1994.

[47] O. García, J.A. Cobos, P. Alou, R. Prieto, J. Uceda, S. Ollero, “A New Family of Single Stage AC/DC Power Factor Correction Converters with Fast Output Voltage Regulation”, IEEE PESC 1997.

[48] O. García, M.D. Martinez-Avila, J.A.Cobos, J. Uceda, J. Gonzalez, J.A. Navas,”Harmonic reducer converter”, IEEE PESC 2000.

[50] A.R. Prasad, P.D. Ziogas, S. Manias, “A novel passive waveshaping method for single phase diode rectifier”, IEEE Transactions on Industrial Electronics.Vol.37, No. 6, Dec 1990.

[50] J.S. Lai, D. Hurst, T. Key, “Switch-mode Power Supply Power Factor Improvement Via Harmonic Elimination Methods”, IEEE APEC 1991.

[50] M.M Jovanovic, D.E. Crow, “Merits and Limitations of Full Bridge Rectifier with LC Filter in Meeting IEC1000-3-2 Harmonic Limit Specifications”, IEEE Transactions on Industry Applications, Vol. 33, nº2, march 1997.

[50] R. Redl, “An Economical Single-Phase Passive Power-Factor Corrected Rectifier: Topology, Operation, Extensions, and Design For Compliance”, IEEE APEC 1998.

[50] V. Vorperian, R. Ridley, “A Simple Scheme for Unity Power Factor Rectification for High Frequency AC Buses” IEEE Transactions on Power Electronics, Vol.5, nº1, January 1990.

[51] E. Rodríguez, O. García, J.A. Cobos, J. Arau y J. Uceda, ”A single stage rectifier with PFC and fast regulation of the output voltage”, IEEE PESC 1998.

[52] J. Qian, F.C.Lee, “A novel high power factor correction rectifier with a coupling inductor”, Virginia Power Electronics Center 1996.

[53] R. Redl, L. Baslogh, N.O. Sokal, "A New Family of Single-Stage Isolated power Factor Corrector with Fast Regulation of the Output Voltage", IEEE PESC 1994.

[54] M. Madigan, R. Erickson, E. Ismail, "Integrated High Quality Rectifier Regulators", IEEE PESC 1992.

[54] M.M. Jovanovic, D.M. Tsang, F.C. Lee, "Reduction of Voltage Stress in Integrated High Quality Rectifier Regulators by Variable Frequency Control”, IEEE APEC 1994.

[55] L. Huber, M.M. Jovanovic, “Single Stage Single Switch Isolated Power Supply Technique with Input Current Shaping and Fast Output Voltage Regulation for Universal Input Voltage Range Applications”, IEEE APEC 1997.

[56] M.M. Keraluwhala, R.L. Steigerwald, R. Gurumoorthy, "Fast Response High Power Factor Converter with a Single Power Stage", IEEE PESC 1991.

[56] J. Qian, F.C. Lee, “A High Efficient Single Stage Single Switch High Power Factor AC/DC Converter with Universal Input”, IEEE APEC 1997.

[57] F.S. Tsai, P. Markowski, E. Whitcomb, “Off-line Flyback Converter with Input Harmonic Current Correction”, INTELEC 1996.

[57] G. Hua, “Consolidated soft switching AC/DC converters”, U.S. Patent No. 5790389, Aug. 1998.

[57] J. Sebastián, M.M. Hernando, P. Villegas, J. Díaz, A. Fontán, “Input current Shaper based on the Series Connection of a Voltage Source and a Loss Free Resistor”, IEEE APEC 1998.

[58] J.J. Spangler, “A power factor corrected, MOSFET, multiple output, flyback switching power supply”, PCI 1985.

[59] O. Garcia, C. Fernandez, R. Prieto, J.A. Cobos, J. Uceda, “Design trade-offs of bi-flyback and bi-forward AC/DC converters to comply low frequency harmonic Regulations”, IEEE PESC 2000.

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