CDB1601-120W DS931DB4

24
Copyright Cirrus Logic, Inc. 2011 (All Rights Reserved) www.cirrus.com Actual Size: 258 mm x 43 mm 8.16 in x 1.7 in CDB1601-120W CS1601 120W, High-efficiency PFC Demonstration Board Features Line Voltage Range: 108 to 305 VACrms Output Voltage (V LINK ): 460V Rated P out : 115W Efficiency: 95% @ 115W Spread Spectrum Switching Frequency Integrated Digital Feedback Control Low Component Count General Description The CDB1601-120W board demonstrates the perfor- mance of the CS1601 digital PFC controller as a stand- alone unit. This board is 95% efficient at full load, and has been tailored for use with a resonant second stage to power up to two T5 fluorescent lamps for a maximum output power of 108W. A resonant second stage driver efficiency of 94% is assumed for this application. ORDERING INFORMATION CDB1601-120W-Z Customer Demonstration Board OCT ‘11 DS931DB4

Transcript of CDB1601-120W DS931DB4

Page 1: CDB1601-120W DS931DB4

Copyright Cirrus L(All Rights Rewww.cirrus.com

Actual Size:258 mm x 43 mm8.16 in x 1.7 in

CDB1601-120W

CS1601 120W, High-efficiency PFC Demonstration Board

Features

Line Voltage Range: 108 to 305 VACrms

Output Voltage (VLINK): 460V

Rated Pout : 115W

Efficiency: 95% @ 115W

Spread Spectrum Switching Frequency

Integrated Digital Feedback Control

Low Component Count

General Description

The CDB1601-120W board demonstrates the perfor-mance of the CS1601 digital PFC controller as a stand-alone unit. This board is 95% efficient at full load, andhas been tailored for use with a resonant second stageto power up to two T5 fluorescent lamps for a maximumoutput power of 108W. A resonant second stage driverefficiency of 94% is assumed for this application.

ORDERING INFORMATION

CDB1601-120W-Z Customer Demonstration Board

ogic, Inc. 2011served)

OCT ‘11DS931DB4

Page 2: CDB1601-120W DS931DB4

CDB1601-120W

IMPORTANT SAFETY INSTRUCTIONS Read and follow all safety instructions prior to using this demonstration board.

Risk of Electric Shock •

Contacting Cirrus Logic SupportFor all product questions and inquiries contact a Cirrus Logic Sales Representative. To find the one nearest to yougo to www.cirrus.com

IMPORTANT NOTICE

Cirrus Logic, Inc. and its subsidiaries ("Cirrus") believe that the information contained in this document is accurate and reliable. However, the information is subjectto change without notice and is provided "AS IS" without warranty of any kind (express or implied). Customers are advised to obtain the latest version of relevantinformation to verify, before placing orders, that information being relied on is current and complete. All products are sold subject to the terms and conditions of salesupplied at the time of order acknowledgment, including those pertaining to warranty, indemnification, and limitation of liability. No responsibility is assumed by Cirrusfor the use of this information, including use of this information as the basis for manufacture or sale of any items, or for infringement of patents or other rights of thirdparties. This document is the property of Cirrus and by furnishing this information, Cirrus grants no license, express or implied under any patents, mask work rights,copyrights, trademarks, trade secrets or other intellectual property rights. Cirrus owns the copyrights associated with the information contained herein and givesconsent for copies to be made of the information only for use within your organization with respect to Cirrus integrated circuits or other products of Cirrus. This con-sent does not extend to other copying such as copying for general distribution, advertising or promotional purposes, or for creating any work for resale.

CERTAIN APPLICATIONS USING SEMICONDUCTOR PRODUCTS MAY INVOLVE POTENTIAL RISKS OF DEATH, PERSONAL INJURY, OR SEVERE PROP-ERTY OR ENVIRONMENTAL DAMAGE ("CRITICAL APPLICATIONS"). CIRRUS PRODUCTS ARE NOT DESIGNED, AUTHORIZED OR WARRANTED FORUSE IN PRODUCTS SURGICALLY IMPLANTED INTO THE BODY, AUTOMOTIVE SAFETY OR SECURITY DEVICES, LIFE SUPPORT PRODUCTS OR OTHERCRITICAL APPLICATIONS. INCLUSION OF CIRRUS PRODUCTS IN SUCH APPLICATIONS IS UNDERSTOOD TO BE FULLY AT THE CUSTOMER'S RISKAND CIRRUS DISCLAIMS AND MAKES NO WARRANTY, EXPRESS, STATUTORY OR IMPLIED, INCLUDING THE IMPLIED WARRANTIES OF MERCHANT-ABILITY AND FITNESS FOR PARTICULAR PURPOSE, WITH REGARD TO ANY CIRRUS PRODUCT THAT IS USED IN SUCH A MANNER. IF THE CUSTOMEROR CUSTOMER'S CUSTOMER USES OR PERMITS THE USE OF CIRRUS PRODUCTS IN CRITICAL APPLICATIONS, CUSTOMER AGREES, BY SUCH USE,TO FULLY INDEMNIFY CIRRUS, ITS OFFICERS, DIRECTORS, EMPLOYEES, DISTRIBUTORS AND OTHER AGENTS FROM ANY AND ALL LIABILITY, IN-CLUDING ATTORNEYS' FEES AND COSTS, THAT MAY RESULT FROM OR ARISE IN CONNECTION WITH THESE USES.

Cirrus Logic, Cirrus, the Cirrus Logic logo designs, EXL Core, and the EXL Core logo design are trademarks of Cirrus Logic, Inc. All other brand andproduct names in this document may be trademarks or service marks of their respective owners.

2 DS931DB4

Page 3: CDB1601-120W DS931DB4

CDB1601-120W

1. INTRODUCTION

The CS1601 is a high-performance Variable Frequency Discontinuous Conduction Mode (VF-DCM), ac-tive Power Factor Correction (PFC) controller, optimized to deliver the lowest PFC system cost for elec-tronic ballast applications. The CS1601 uses a digital control algorithm that is optimized for high efficiencyand near unity power factor over a wide input voltage range (108-305 VAC).

The CS1601 uses an adaptive digital control algorithm. Both the ON time and the switching frequency arevaried on a cycle-by-cycle basis over the entire AC line to achieve close to unity power factor. The varia-tion in switching frequency also provides a spread frequency spectrum, thus minimizing the conductedEMI filtering requirements.

The feedback loop is closed through an integrated digital control system within the IC. Protection featuressuch as overvoltage, overcurrent, overpower, open circuit, overtemperature, and brownout help protectthe device during abnormal transient conditions. Details of these features are provided in the CS1601 datasheet.

The CDB1601-120W board demonstrates the performance of the CS1601 over a wide input voltage rangeof 108 to 305 VAC, typically seen in universal input ballast applications. This board has been designedfor a 460 V, 115 W full load output application.

Extreme caution needs to be exercised while handling this board. This board is to be powered up bytrained professionals only.

Prior to applying AC power to the CDB1601-120W board, the CS1601 needs to be biased using an exter-nal 13 VDC power supply, applied across pins 1 and 3 of terminal block J5. Terminal block J6 is used toconnect the AC line. The load is connected to J7. As a safety measure, jumper J1 is provided as a meansto apply a small resistive load (200 kminium) to rapidly discharge the output capacitors. Other jumpersand test points are provided to evaluate the behavior of the IC and the various sections of the design.

Figure 1. Board Connections

DANGERHigh Voltage Hazard

ONLY QUALIFIED PERSONNEL SHOULD HANDLE THE CDB1601-120W.

WARNING:Heatsinking is required for Q4.

The end product should use tar pitch or an equivalent compound for this purpose. For lab evaluation purposes, a fan is recommended to provide adequate cooling.

J5

J7

J6

J1

AC LineInput

VDD Input

TerminalsOutput

DS931DB4 3

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CDB1601-120W

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4 DS931DB4

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CDB1601-120W

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003R

1000

FE70

8038

020-

0635

6-Z1

AR

ES

1.1

5M O

HM

1/4

W ±

1% N

Pb

1206

6R

10 R

11 R

12 R

13 R

15 R

16D

ALE

CR

CW

1206

1M15

FKE

A39

020-

0261

6-Z1

AR

ES

1k

OH

M 1

/4W

±1%

NP

b 12

06 F

ILM

1R

14D

ALE

CR

CW

1206

1K00

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A40

020-

0639

1-Z1

AR

ES

1.7

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1/4

W ±

1% N

Pb

1206

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1206

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020-

0637

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ES

0.2

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b 25

120

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R22

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NA

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ER

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24U

NO

PO

P42

030-

0008

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100

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TL F

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Pb

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294-

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4303

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470

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T P

T .1

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PLA

T N

Pb

BLK

7TP

2 TP

3 TP

4 TP

5 TP

6 TP

7 TP

8K

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STO

NE

5001

4506

5-00

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LP

WR

FA

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R C

OR

R N

Pb

SO

IC8

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1C

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GTH

TO

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M Q

UA

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TY IN

INC

HE

S47

080-

0004

0-Z1

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IRE

16A

WG

SO

LID

PV

C IN

S B

LK N

Pb

4.00

0W

3A

LPH

A W

IRE

CO

MP

AN

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BK

005

AD

D L

EN

GTH

TO

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M Q

UA

NTI

TY IN

INC

HE

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0002

5-Z1

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K T

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MA

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INC

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ALL

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UN

TIN

G H

AR

DW

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300-

0002

5-Z1

AS

CR

EW

4-4

0X5/

16" P

H M

AC

H S

S N

Pb

4 X

MH

1MX

MH

2 X

MH

3 X

MH

4B

UIL

DIN

G F

AS

TEN

ER

SP

MS

SS

440

003

1 P

HS

CR

EW

S F

OR

STA

ND

OFF

S50

240-

0046

6-Z1

CP

CB

CD

B16

01-1

20W

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Pb

1C

IRR

US

LO

GIC

240-

0046

6-Z1

EC

O80

5/82

6/84

051

603-

0046

6-Z1

CA

SS

Y D

WG

CD

B16

01-1

20W

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Pb

RE

FC

IRR

US

LO

GIC

603-

0046

6-Z1

EC

O80

5/82

6/84

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600-

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6-Z1

CS

CH

EM

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B16

01-1

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Pb

RE

FC

IRR

US

LO

GIC

600-

0046

6-Z1

EC

O80

5/82

6/84

053

422-

0001

3-01

CLB

L S

UB

AS

SY

PR

OD

UC

T ID

AN

D R

EV

1C

IRR

US

LO

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422-

0001

3-01

DS931DB4 5

Page 6: CDB1601-120W DS931DB4

CDB1601-120W

4. BOARD LAYOUT

Fig

ure

3.

So

lder

Mas

k (B

ott

om

)

Fig

ure

5.

Sil

kscr

een

(T

op

)

Fig

ure

4.

So

lder

Mas

k (T

op

)

6 DS931DB4

Page 7: CDB1601-120W DS931DB4

CDB1601-120W

Fig

ure

6.

Cir

cu

it R

ou

tin

g (

Bo

tto

m)

Fig

ure

8.

Sil

ks

cre

en (

Bo

tto

m)

Fig

ure

7.

So

lde

r P

ast

e M

ask

(Bo

tto

m)

DS931DB4 7

Page 8: CDB1601-120W DS931DB4

CDB1601-120W

5. TYPICAL PERFORMANCE PLOTS

50

55

60

65

70

75

80

85

90

95

100

10 20 30 40 50 60 70 80 90 100 110 120

Effic

ienc

y (%

)

Output Power (Watts)

120V

230V

277V

0.80

0.82

0.84

0.86

0.88

0.90

0.92

0.94

0.96

0.98

1.00

20 30 40 50 60 70 80 90 100 110 120

Pow

er F

acto

r

Output Power (Watts)

120V

230V

277V

Figure 9. Efficiency vs. Output Power

Figure 10. Power Factor vs. Output Power

8 DS931DB4

Page 9: CDB1601-120W DS931DB4

CDB1601-120W

0

5

10

15

20

25

30

35

40

45

50

10 20 30 40 50 60 70 80 90 100 110 120

THD

(%)

Output Power (Watts)

277V

230V

120V

450

452

454

456

458

460

462

464

466

468

470

0 10 20 30 40 50 60 70 80 90 100 110 120

Vlin

k (V

)

Output Power (Watts)

277V230V

120V

Figure 11. THD vs. Output Power

Figure 12. VLink Voltage vs. Output Power

DS931DB4 9

Page 10: CDB1601-120W DS931DB4

CDB1601-120W

Figure 13. Steady State Waveforms — 120 VAC

Figure 14. Steady State Waveforms — 230 VAC

10 DS931DB4

Page 11: CDB1601-120W DS931DB4

CDB1601-120W

Figure 15. Steady State Waveforms — 277 VAC

DS931DB4 11

Page 12: CDB1601-120W DS931DB4

CDB1601-120W

Figure 16. Switching Frequency Profile at Peak of AC Line Voltage — 120 VAC

Figure 17. Switching Frequency Profile at Peak of AC Line Voltage — 120 VAC (cont.)

Ch. 1–VLINK

Ch. 2–VRECT

Ch. 3–Gate

Ch. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

12 DS931DB4

Page 13: CDB1601-120W DS931DB4

CDB1601-120W

Figure 18. Switching Frequency Profile at Trough of AC Line Voltage —120 VAC

Figure 19. Switching Frequency Profile at Trough of AC Line Voltage — 120 VAC (cont.)

Ch. 1–VLINK

Ch. 2–VRECT

Ch. 3–Gate

Ch. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

DS931DB4 13

Page 14: CDB1601-120W DS931DB4

CDB1601-120W

Figure 20. Switching Frequency Profile at Peak of AC Line Voltage — 230 VAC

Figure 21. Switching Frequency Profile at Peak of AC Line Voltage — 230 VAC (cont.)

Ch. 1–VLINK

Ch. 2–VRECT

Ch. 3–Gate

Ch. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

14 DS931DB4

Page 15: CDB1601-120W DS931DB4

CDB1601-120W

Figure 22. Switching Frequency Profile at Trough of AC Line Voltage — 230 VAC

Figure 23. Switching Frequency Profile at Trough of AC Line Voltage — 230 VAC (cont.)

Ch. 1–VLINK

Ch. 2–VRECT

Ch. 3–Gate

Ch. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

DS931DB4 15

Page 16: CDB1601-120W DS931DB4

CDB1601-120W

Figure 24. Switching Frequency Profile at Peak of AC Line Voltage — 277 VAC

Figure 25. Switching Frequency Profile at Peak of AC Line Voltage — 277 VAC (cont.)

Ch. 1–VLINK

Ch. 2–VRECT

Ch. 3–Gate

Ch. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

16 DS931DB4

Page 17: CDB1601-120W DS931DB4

CDB1601-120W

Figure 26. Switching Frequency Profile at Trough of AC Line Voltage — 277 VAC

Figure 27. Switching Frequency Profile at Trough of AC Line Voltage — 277 VAC (cont.)

Ch. 1–VLINK

Ch. 2–VRECT

Ch. 3–Gate

Ch. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

DS931DB4 17

Page 18: CDB1601-120W DS931DB4

CDB1601-120W

Figure 28. Transient — 15W to 115W Load at 10W/s, Vin = 120VAC

Figure 29. Transient — 15W to 115W Load at 10W/s, Vin = 120VAC (cont.)

Ch. 1–VLINKCh. 2–VRECTCh. 3–GateCh. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

18 DS931DB4

Page 19: CDB1601-120W DS931DB4

CDB1601-120W

Figure 30. Transient — 15W to 115W Load at 10W/s, Vin = 230VAC

Figure 31. Transient — 15W to 115W Load at 10W/s, Vin = 230VAC (cont.)

Ch. 1–VLINKCh. 2–VRECTCh. 3–GateCh. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

DS931DB4 19

Page 20: CDB1601-120W DS931DB4

CDB1601-120W

Figure 32. Transient — 15W to 115W Load at 10W/s, Vin = 277VAC

Figure 33. Transient — 15W to 115W Load at 10W/s, Vin = 277VAC (cont.)

Ch. 1–VLINKCh. 2–VRECTCh. 3–GateCh. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

20 DS931DB4

Page 21: CDB1601-120W DS931DB4

CDB1601-120W

Figure 34. Transient — 115W to Zero Load at 10W/s, Vin = 120VAC

Figure 35. Transient — 115W to Zero Load at 10W/s, Vin = 120VAC (cont.)

Ch. 1–VLINKCh. 2–VRECTCh. 3–GateCh. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

DS931DB4 21

Page 22: CDB1601-120W DS931DB4

CDB1601-120W

Figure 36. Transient — 115W to Zero Load at 10W/s, Vin = 230VAC

Figure 37. Transient — 115W to Zero Load at 10W/s, Vin = 230VAC (cont.)

Ch. 1–VLINKCh. 2–VRECTCh. 3–GateCh. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

22 DS931DB4

Page 23: CDB1601-120W DS931DB4

CDB1601-120W

Figure 38. Transient — 115W to Zero Load at 10W/s, Vin = 277VAC

Figure 39. Transient — 115W to Zero Load at 10W/s, Vin = 277VAC (cont.)

Ch. 1–VLINKCh. 2–VRECTCh. 3–GateCh. 4–Inductor Current

Ch. 1–VDSCh. 2–VRECTCh. 3–CSCh. 4–ZCD

DS931DB4 23

Page 24: CDB1601-120W DS931DB4

CDB1601-120W

6. REVISION HISTORY

Revision Date Changes

DB1 FEB 2011 Initial Release.

DB2 FEB 2011 Minor BOM change.

DB3 MAR 2011 Updated BOM & Layers to rev C.

DB4 OCT 2011 Revised part number to reflect lead free.

24 DS931DB4