Bulletin No

T07 EB0

(Mar.,2001)

•

The information in this publication has been carefully checked and is believed to be accurate;
however, no responsibility is assumed for inaccuracies.

•

Sanken reserves the right to make changes without further notice to any products herein in the
interest of improvements in the performance, reliability, or manufacturability of its products.
Before placing an order, Sanken advises its customers to obtain the latest version of the relevant
information to verify that the information being relied upon is current.

•

Application and operation examples described in this catalog are quoted for the sole purpose of
reference for the use of the products herein and Sanken can assume no responsibility for any
infringement of industrial property rights, intellectual property rights or any other rights of Sanken
or any third party which may result from its use.

•

When using the products herein, the applicability and suitability of such products for the intended
purpose or object shall be reviewed at the users’ responsibility.

•

Although Sanken undertakes to enhance the quality and reliability of its products, the occurrence
of failure and defect of semiconductor products at a certain rate is inevitable.  Users of Sanken
products are requested to take, at their own risk, preventative measures including safety design
of the equipment or systems against any possible injury, death, fires or damages to the society
due to device failure or malfunction.

•

Sanken products listed in this catalog are designed and intended for the use as components in
general purpose electronic equipment or apparatus (home appliances, office equipment, tel-
ecommunication equipment, measuring equipment, etc.).  Before placing an order, the user’s
written consent to the specifications is requested.
When considering the use of Sanken products in the applications where higher reliability is
required (transportation equipment and its control systems, traffic signal control systems or
equipment, fire/crime alarm systems, various safety devices, etc.), please contact your nearest
Sanken sales representative to discuss and obtain written confirmation of your specifications.
The use of Sanken products without the written consent of Sanken in the applications where
extremely high reliability is required (aerospace equipment, nuclear power control systems, life
support systems, etc.) is strictly prohibited.

•

Anti radioactive ray design is not considered for the products listed herein.

•

This publication shall not be reproduced in whole or in part without prior written approval from
Sanken.

Ordering

    Specify the number of standard minimum packaged units when placing an order.

Cardboard Box

Stick

Reel

SLA

50

108

SMA

120

108

STA300

100

STA400

80

STA500

110

SDK

1200

Standard minimum packaged unit

Series

Package Type

     CAUTION / WARNING

1

Product index by Part Number .................................................... 2

Product index by function (Sink Driver) ......................................... 4

Product index by function (Source Driver)...................................... 6

Product index by function (Motor Driver) ....................................... 8

Product index by applications .................................................. 10

Storage, characteristic inspection, and handling precautions ........... 13

Avalanche energy capability of MOSFET array .............................. 14

Transistor array with built-in avalanche diode .............................. 16

Switching time measurement .................................................. 16

External dimensions ............................................................. 17

SLA packages ..................................................................... 18

SMA packages ................................................................... 122

STA packages .................................................................... 152

SD packages (surface mount) ................................................. 191

Contents

2

Part Number

Classification

Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A)

h

FE 

(min)

R

DS (ON)

 max (

Ω

)

Package

Page

SDA01

Source driver

4

–60

–1.5

2000

SMD 16-pin

191

SDA05

3–phase motor driver

3

–60

–4

2000

SMD 16-pin

192

SDC01

Sink driver

4

50

2

1000

SMD 16-pin

193

SDC03

Sink driver

4

60

±

10

1.5

2000

SMD 16-pin

194

SDC04

Sink driver

4

100

±

15

1.5

2000

SMD 16-pin

195

SDC06

Sink driver

4

30 to 45

2

400

SMD 16-pin

196

SDC07

3–phase motor driver

3

60

4

2000

SMD 16-pin

197

SDH02

Sink driver

4

100

1.5

2000

SMD 16-pin

198

SDH03

H–bridge driver

4

+100/–60

±

1.5

2000

SMD 16-pin

200

SDK02

Sink driver

4

60

2

0.24 SMD 16-pin

202

SDK04

Sink driver

4

100

2

0.8 SMD 16-pin

203

SLA4010

Sink driver

4

60

±

10

4

2000

SIP 12-pin with fin

18

SLA4030

Sink driver

4

100

4

2000

SIP 12-pin with fin

19

SLA4031

Sink driver

4

120

4

2000

SIP 12-pin with fin

20

SLA4041

Sink driver

4

200

3

1000

SIP 12-pin with fin

21

SLA4060

Sink driver

4

120

5

2000

SIP 12-pin with fin

22

SLA4061

Sink driver

4

120

5

2000

SIP 12-pin with fin

23

SLA4070

Source driver

4

–100

–5

1000

SIP 12-pin with fin

24

SLA4071

Source driver

4

–100

–5

2000

SIP 12-pin with fin

25

SLA4310

H–bridge driver

4

±

60

±

4

80

SIP 12-pin with fin

26

SLA4340

H–bridge driver

4

±

60

±

4

2000

SIP 12-pin with fin

28

SLA4390

H–bridge driver

4

±

100

±

5

2000

SIP 12-pin with fin

30

SLA4391

H–bridge driver

4

±

100

±

5

1000

SIP 12-pin with fin

32

SLA5001

Sink driver

4

100

5

0.3 SIP 12-pin with fin

34

SLA5002

Sink driver

4

100

5

0.3 SIP 12-pin with fin

35

SLA5003

Sink driver

4

200

5

0.9 SIP 12-pin with fin

36

SLA5004

Source driver

4

–60

–5

0.3 SIP 12-pin with fin

37

SLA5005

Source driver

4

–100

–5

0.7 SIP 12-pin with fin

38

SLA5006

Source driver

4

–100

–5

0.7 SIP 12-pin with fin

39

SLA5007

H–bridge driver

4

±

60

+5/–4

0.22/0.55 SIP 12-pin with fin

40

SLA5008

H–bridge driver

4

±

100

+4/–3

0.6/1.3 SIP 12-pin with fin

42

SLA5009

3–phase motor driver

6

±

60

+5/–4

0.22/0.55 SIP 12-pin with fin

44

SLA5010

3–phase motor driver

6

±

100

+4/–3

0.6/1.3 SIP 12-pin with fin

46

SLA5011

Sink driver

5

60

5

0.22 SIP 12-pin with fin

48

SLA5012

Source driver

5

–60

–5

0.3 SIP 12-pin with fin

49

SLA5013

H–bridge driver

4

±

100

±

5

0.3/0.7 SIP 12-pin with fin

50

SLA5015

Source driver

5

–60

–4

0.55 SIP 12-pin with fin

52

SLA5017

3–phase motor driver

6

±

60

+5/–4

0.22/0.55 SIP 12-pin with fin

54

SLA5018

H–bridge driver

4

±

60

+5/–4

0.22/0.55 SIP 12-pin with fin

56

SLA5021

Sink driver

5

100

5

0.19 SIP 12-pin with fin

58

SLA5022

3–phase motor driver

6

±

60

±

6

2000

0.22 SIP 12-pin with fin

60

SLA5023

3–phase motor driver

6

±

100

±

6

2000

0.55 SIP 12-pin with fin

62

SLA5024

Source driver

4

–60

–4

0.55 SIP 12-pin with fin

64

SLA5029

Sink driver

5

60

4

0.45 SIP 12-pin with fin

65

SLA5031

Sink driver

4

60

5

0.3 SIP 12-pin with fin

66

SLA5037

Sink driver

4

100

10

0.08 SIP 12-pin with fin

67

SLA5040

Sink driver

4

100

4

0.6 SIP 12-pin with fin

68

SLA5041

Sink driver

4

200

10

0.175 SIP 12-pin with fin

69

SLA5042

Sink driver

5

100

5

0.185 SIP 12-pin with fin

70

SLA5044

Sink driver

4

250

10

0.25 SIP 12-pin with fin

71

SLA5046

Sink driver

5

200

7

0.35 SIP 12-pin with fin

72

SLA5047

Sink driver

4

150

10

0.085 SIP 12-pin with fin

73

SLA5049

Sink driver

5

250

7

0.5 SIP 12-pin with fin

74

SLA5052

Sink driver

4

150

10

0.115 SIP 12-pin with fin

75

SLA5054

Sink driver

6

150

±

7/

±

5/

±

7

0.105/0.44/0.2 SIP 15-pin with fin

76

SLA5055

Sink driver

5

150

±

5/

±

7

0.44/0.2 SIP 12-pin with fin

78

SLA5057

Sink driver

6

200

±

7/

±

7

0.175/0.35 SIP 15-pin with fin

80

SLA5058

Sink driver

5

150

±

7

0.2 SIP 12-pin with fin

81

SLA5059

3–phase motor driver

6

60

±

4

0.55 SIP 12-pin with fin

82

SLA5060

3–phase motor driver

6

60

±

6

0.22 SIP 12-pin with fin

84

SLA5061

3–phase motor driver

6

60

±

10

0.14 SIP 12-pin with fin

86

SLA5064

3–phase motor driver

6

60

±

10

0.14 SIP 12-pin with fin

88

SLA5065

5–phase motor driver

4

60

7

0.1 SIP 15-pin with fin

90

SLA5068

5–phase motor driver

6

60

7

0.1 SIP 15-pin with fin

91

SLA5070

Sink driver

6

150

±

7/

±

7

0.105/0.2 SIP 15-pin with fin

92

SLA5072

3–phase motor driver

6

250

7

0.5 SIP 15-pin with fin

94

SLA5073

5–phase motor driver

6

60

5

0.3 SIP 15-pin with fin

95

SLA5074

5–phase motor driver

4

60

5

0.3 SIP 15-pin with fin

96

SLA5075

3–phase motor driver

6

500

±

5

1.4 SIP 15-pin with fin

97

SLA5077

Sink driver

4

150

±

10

0.2 SIP 12-pin with fin

98

SLA5079

3–phase motor driver

3

–60

–10

0.14 SIP 12-pin with fin

99

Product  index  by  Part  Number

3

Part Number

Classification

Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A)

h

FE 

(min)

R

DS (ON)

 max (

Ω

)

Package

Page

SLA5080

3–phase motor driver

3

60

10

0.14 SIP 12-pin with fin

100

SLA5081

Sink driver

5

150

±

7/

±

7

0.105/0.2 SIP 15-pin with fin

102

SLA5085

Sink driver

5

60

5

0.22 SIP 12-pin with fin

104

SLA5086

Source driver

5

–60

–5

0.22 SIP 12-pin with fin

105

SLA5088

Sink driver

5

150

±

5/

±

7

0.44/0.2 SIP 15-pin with fin

106

SLA6012

3–phase motor driver

6

±

60

±

4

2000

SIP 12-pin with fin

108

SLA6020

3–phase motor driver

6

±

100

±

5

2000

SIP 12-pin with fin

110

SLA6022

3–phase motor driver

6

±

80

±

5

2000

SIP 12-pin with fin

112

SLA6023

3–phase motor driver

6

±

60

±

6

2000

SIP 12-pin with fin

114

SLA6024

3–phase motor driver

6

±

60

±

8

2000

SIP 12-pin with fin

116

SLA6026

3–phase motor driver

6

±

60

±

10

2000

SIP 12-pin with fin

118

SLA8001

H–bridge

4

±

60

±

12

50

SIP 12-pin with fin

120

SMA4020

Source driver

4

–60

–4

2000

SIP 12-pin

122

SMA4021

Source driver

4

–60

–3

2000

SIP 12-pin

123

SMA4030

Sink driver

4

100

3

2000

SIP 12-pin

124

SMA4032

Sink driver

4

100

3

2000

SIP 12-pin

125

SMA4033

Sink driver

4

100

2

2000

SIP 12-pin

126

SMA5101

Sink driver

4

100

4

0.6 SIP 12-pin

127

SMA5102

Sink driver

4

100

4

0.6 SIP 12-pin

128

SMA5103

H–bridge driver

4

±

60

+5/–4

0.22/0.55 SIP 12-pin

130

SMA5104

3–phase motor driver

6

±

60

+5/–4

0.22/0.55 SIP 12-pin

132

SMA5105

Sink driver

4

100

5

0.3 SIP 12-pin

134

SMA5106

Sink driver

4

100

4

0.55 SIP 12-pin

135

SMA5112

3–phase motor driver

6

250

7

0.5 SIP 12-pin

136

SMA5114

Sink driver

4

60

3

0.25 SIP 12-pin

137

SMA5117

3–phase motor driver

6

250

7

0.25 SIP 12-pin

138

SMA5118

3–phase motor driver

6

500

±

5

1.4 SIP 12-pin

139

SMA5125

3–phase motor driver

6

±

60

±

10

0.14 SIP 12-pin

140

SMA5127

3–phase motor driver

6

±

60

±

4

0.55 SIP 12-pin

142

SMA6010

3–phase motor driver

6

±

60

±

4

2000

SIP 12-pin

144

SMA6014

3–phase motor driver

6

±

60

±

2 1500/2000

SIP 12-pin

146

SMA6511

Stepper motor driverr with

5

100

±

15/–60

1.5/–3

2000

SIP 12-pin

148

Dual Supply Voltage Switch

SMA6512

Stepper motor driverr with

5

60

±

10/–60

1.5/–3

2000

SIP 12-pin

150

Dual Supply Voltage Switch

STA301A

Sink driver

3

60

±

10

4

1000

SIP 8-pin

152

STA302A

Source driver

3

–50

–4

1000

SIP 8-pin

153

STA302A

3–phase motor driver

3

–50

–4

1000

SIP 8-pin

153

STA303A

Sink driver

3

100

4

1000

SIP 8-pin

154

STA303A

3–phase motor driver

3

100

4

1000

SIP 8-pin

154

STA304A

3–phase motor driver

3

550

1

200

SIP 8-pin

155

STA305A

3–phase motor driver

3

–550

–1

200

SIP 8-pin

156

STA308A

Source driver

3

–120

–4

2000

SIP 8-pin

157

STA312A

Sink driver

3

60

3

300

SIP 8-pin

158

STA322A

Source driver

3

–50

–3

100

SIP 8-pin

159

STA371A

Sink driver

3

60

±

10

2

2000

SIP 8-pin

160

STA401A

Sink driver

4

60

±

10

4

1000

SIP 10-pin

161

STA402A

Source driver

4

–50

–4

1000

SIP 10-pin

162

STA403A

Sink driver

4

100

4

1000

SIP 10-pin

163

STA404A

Sink driver

4

200

3

1000

SIP 10-pin

164

STA406A

Sink driver

4

60

±

10

6

2000

SIP 10-pin

165

STA408A

Source driver

4

–120

–4

2000

SIP 10-pin

166

STA412A

Sink driver

4

60

3

300

SIP 10-pin

167

STA413A

Sink driver

4

35

±

5

3

500

SIP 10-pin

168

STA421A

Source driver

4

–60

–3

40

SIP 10-pin

169

STA431A

H–bridge driver

4

±

60

±

3

40

SIP 10-pin

170

STA434A

H–bridge driver

4

±

60

±

4

1000

SIP 10-pin

172

STA435A

Sink driver

4

65

±

15

4

1000

SIP 10-pin

174

STA457C

H–bridge driver

4

±

60

±

4

2000

SIP 10-pin

176

STA458C

H–bridge driver

4

±

30

±

5

40

SIP 10-pin

178

STA460C

Sink driver

2

60

±

10

6

700

SIP 10-pin

180

STA471A

Sink driver

4

60

±

10

2

2000

SIP 10-pin

181

STA472A

Source driver

4

–60

–2

2000

SIP 10-pin

182

STA473A

Sink driver

4

100

2

2000

SIP 10-pin

183

STA475A

Sink driver

4

100

±

15

2

2000

SIP 10-pin

184

STA481A

Sink driver

4

60

±

10

1

2000

SIP 10-pin

185

STA485A

Sink driver

4

100

±

15

1

2000

SIP 10-pin

186

STA501A

Sink driver

4

60

5

0.2 SIP 10-pin

187

STA504A

Sink driver

4

60

4

0.45 SIP 10-pin

188

STA505A

Sink driver

4

100

3

0.6 SIP 10-pin

189

STA506A

Sink driver

4

100

2

0.8 SIP 10-pin

190

4

Product  index  by  function

 Sink driver

Part Number Number of chips V

CEO 

(V)

I

C 

(A)

h

FE 

(min)

R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

STA460C

2

60

±

10

6

700

1

SIP 10-pin

180

STA371A

3

60

±

10

2

2000

2

SIP 8-pin

160

STA301A

3

60

±

10

4

1000

2

SIP 8-pin

152

SDC06

4 30 to 45

2

400

3

SMD 16-pin

196

STA413A

4

35

±

5

3

500

4

SIP 10-pin

168

STA481A

4

60

±

10

1

2000

5

SIP 10-pin

185

SDC03

4

60

±

10

1.5

2000

6

SMD 16-pin

194

STA471A

4

60

±

10

2

2000

5

SIP 10-pin

181

STA401A

4

60

±

10

4

1000

5

SIP 10-pin

161

SLA4010

4

60

±

10

4

2000

6

SIP 12-pin with fin

18

STA406A

4

60

±

10

6

2000

5

SIP 10-pin

165

STA435A

4

65

±

15

4

1000

7

SIP 10-pin

174

STA485A

4

100

±

15

1

2000

5

SIP 10-pin

186

SDC04

4

100

±

15

1.5

2000

6

SMD 16-pin

195

STA475A

4

100

±

15

2

2000

5

SIP 10-pin

184

●

With built-in avalanche diode between collector and base

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A)

h

FE

 (min)

R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

SDK02

4

60

2

0.24

8

SMD 16-pin

202

SMA5114

4

60

3

0.25

9

SIP 12-pin

137

SLA5031

4

60

5

0.3

10

SIP 12-pin with fin

66

SDH02

4

100

1.5

2000

11

SMD 16-pin

198

SMA4033

4

100

2

2000

12

SIP 12-pin

126

SMA4032

4

100

3

2000

12

SIP 12-pin

125

SLA5040

4

100

4

0.6

10

SIP 12-pin with fin

68

SMA5102

4

100

4

0.6

10

SIP 12-pin

128

SMA5106

4

100

4

0.55

10

SIP 12-pin

135

SLA5002

4

100

5

0.3

10

SIP 12-pin with fin

35

SMA5105

4

100

5

0.3

10

SIP 12-pin

134

SLA4031

4

120

4

2000

12

SIP 12-pin with fin

20

SLA4061

4

120

5

2000

12

SIP 12-pin with fin

23

SLA4041

4

200

3

1000

12

SIP 12-pin with fin

21

SLA5003

4

200

5

0.9

10

SIP 12-pin with fin

36

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A)

h

FE

 (min)

R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

STA312A

3

60

3

300

13 SIP 8-pin

158

STA303A

3

100

4

100

14 SIP 8-pin

154

SDC01

4

50

2

1000

15 SMD 16-pin

193

STA412A

4

60

3

300

16 SIP 10-pin

167

STA504A

4

60

4

0.45

17 SIP 10-pin

188

STA501A

4

60

5

0.2

18 SIP 10-pin

187

STA473A

4

100

2

2000

19 SIP 10-pin

183

STA506A

4

100

2

0.8

18 SIP 10-pin

190

SDK04

4

100

2

0.8

20 SMD 16-pin

203

SMA4030

4

100

3

2000

21 SIP 12-pin

124

STA505A

4

100

3

0.6

18 SIP 10-pin

189

STA403A

4

100

4

1000

19 SIP 10-pin

163

SLA4030

4

100

4

2000

21 SIP 12-pin with fin

19

SMA5101

4

100

4

0.6

20 SIP 12-pin

127

SLA5001

4

100

5

0.3

20 SIP 12-pin with fin

34

SLA5037

4

100

10

0.08

20 SIP 12-pin with fin

67

SLA4060

4

120

5

2000

21 SIP 12-pin with fin

22

SLA5047

4

150

10

0.085

20 SIP 12-pin with fin

73

SLA5052

4

150

10

0.115

20 SIP 12-pin with fin

75

STA404A

4

200

3

1000

19 SIP 10-pin

164

SLA5041

4

200

10

0.175

20 SIP 12-pin with fin

69

SLA5044

4

250

10

0.25

20 SIP 12-pin with fin

71

SLA5029

5

60

4

0.45

22 SIP 12-pin with fin

65

SLA5011

5

60

5

0.22

22 SIP 12-pin with fin

48

SLA5085

5

60

5

0.22

22 SIP 12-pin with fin

104

SLA5021

5

100

5

0.19

22 SIP 12-pin with fin

58

SLA5042

5

100

5

0.185

22 SIP 12-pin with fin

70

SLA5055

5

150

±

5/

±

7

0.44/0.2

22 SIP 12-pin with fin

78

SLA5088

5

150

±

5/

±

7

0.44/0.2

22 SIP 15-pin with fin

106

SLA5058

5

150

±

7

0.2

22 SIP 12-pin with fin

81

SLA5081

5

150

±

7/

±

7

0.105/0.2

22 SIP 15-pin with fin

102

SLA5046

5

200

7

0.35

22 SIP 12-pin with fin

72

SLA5049

5

250

7

0.5

22 SIP 12-pin with fin

74

SLA5054

6

150

±

7/

±

5/

±

7

0.105/0.44/0.2

23 SIP 15-pin with fin

76

SLA5070

6

150

±

7/

±

7

0.105/0.2

23 SIP 15-pin with fin

92

SLA5057

6

200

±

7/

±

7

0.175/0.35

23 SIP 15-pin with fin

80

●

General purpose

●

With built-in flywheel diode

5

11

10

12

8

5

1

9

4

3

2

7

6

G

H

I

J

K

L

M

1

2

3

4

5

6

7

8

9

0

A

B

C

D

E

F

●

Equivalent circuit (Sink driver)

6

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A)

h

FE

 (min)

R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

SMA4021

4

–60

–3

2000

1 SIP 12-pin

123

SLA4071

4

–100

–5

2000

1 SIP 12-pin with fin

25

SLA5006

4

–100

–5

0.7

2 SIP 12-pin with fin

39

●

With built-in flywheel diode

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A)

h

FE

 (min)

R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

STA322A

3

–50

–3

100

3 SIP 8-pin

159

STA302A

3

–50

–4

1000

4 SIP 8-pin

153

STA308A

3

–120

–4

2000

4 SIP 8-pin

157

STA402A

4

–50

–4

1000

5 SIP 10-pin

162

SDA01

4

–60

–1.5

2000

6 SMD 16-pin

191

STA472A

4

–60

–2

2000

5 SIP 10-pin

182

STA421A

4

–60

–3

40

7 SIP 10-pin

169

SMA4020

4

–60

–4

2000

6 SIP 12-pin

122

SLA5024

4

–60

–4

0.55

8 SIP 12-pin with fin

64

SLA5004

4

–60

–5

0.3

8 SIP 12-pin with fin

37

SLA4070

4

–100

–5

1000

6 SIP 12-pin with fin

24

SLA5005

4

–100

–5

0.7

8 SIP 12-pin with fin

38

STA408A

4

–120

–4

2000

9 SIP 10-Pin

166

SLA5015

5

–60

–4

0.55

10 SIP 12-pin with fin

52

SLA5012

5

–60

–5

0.3

10 SIP 12-pin with fin

49

SLA5086

5

–60

–5

0.22

10 SIP 12-pin with fin

105

●

General purpose

Product  index  by  function

Source driver

7

●

Equivalent circuit (Source driver)

1

2

3

4

5

6

7

8

9

0

8

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A) h

FE

 (min) R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

STA458C

4

±

30

±

5

40

1 SIP 10-pin

178

STA431A

4

±

60

±

3

40

2 SIP 10-pin

170

STA434A

4

±

60

±

4

1000

3 SIP 10Pin

172

STA457C

4

±

60

±

4

2000

4 SIP 10-pin

176

SLA4310

4

±

60

±

4

80

5 SIP 12-pin with fin

26

SLA4340

4

±

60

±

4

2000

3 SIP 12-pin with fin

28

SLA5007

4

±

60

+5/–4

0.22/0.55

6 SIP 12-pin with fin

40

SLA5018

4

±

60

+5/–4

0.22/0.55

6 SIP 12-pin with fin

56

SMA5103

4

±

60

+5/–4

0.22/0.55

6 SIP 12-pin

130

SLA8001

4

±

60

±

12

50

1 SIP 12-pin with fin

120

SDH03

4

±

100/–60

±

1.5

2000

7 SMD 16-pin

200

SLA5008

4

±

100

+4/–3

0.6/1.3

6 SIP 12-pin with fin

42

SLA4390

4

±

100

±

5

2000

3 SIP 12-pin with fin

30

SLA4391

4

±

100

±

5

1000

8 SIP 12-pin with fin

32

SLA5013

4

±

100

±

5

0.3/0.7

6 SIP 12-pin with fin

50

●

H-bridge driver

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A) h

FE

 (min) R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

SDC07

3

60

4

2000

9 SMD 16-pin

197

SLA5080

3

60

10

0.14

10 SIP 12-pin with fin

100

STA303A

3

100

4

1000

11 SIP 8-pin

154

STA304A

3

550

1

200

12 SIP 8-pin

155

STA302A

3

–50

–4

1000

13 SIP 8-pin

153

SDA05

3

–60

–4

2000

14 SMD 16-pin

192

SLA5079

3

–60

–10

0.14

15 SIP 12-pin with fin

99

STA305A

3

–550

–1

200

16 SIP 8-pin

156

SLA5059

6

60

±

4

0.55

17 SIP 12-pin with fin

82

SLA5060

6

60

±

6

0.22

17 SIP 12-pin with fin

84

SLA5061

6

60

±

10

0.14

17 SIP 12-pin with fin

86

SLA5064

6

60

±

10

0.14

18 SIP 12-pin with fin

88

SMA6014

6

±

60

±

2 1500/2000

19 SIP 12-pin

146

SMA6010

6

±

60

±

4

2000

20 SIP 12-pin

144

SLA6012

6

±

60

±

4

2000

19 SIP 12-pin with fin

108

SMA5127

6

±

60

±

4

0.55

21 SIP 12-pin

142

SLA5009

6

±

60

+5/–4

0.22/0.55

21 SIP 12-pin with fin

44

SLA5017

6

±

60

+5/–4

0.22/0.55

21 SIP 12-pin with fin

54

SMA5104

6

±

60

+5/–4

0.22/0.55

21 SIP 12-pin

132

SLA5022

6

±

60

±

6

2000

0.22

22 SIP 12-pin with fin

60

SLA6023

6

±

60

±

6

2000

19 SIP 12-pin with fin

114

SLA6024

6

±

60

±

8

2000

19 SIP 12-pin with fin

116

SLA6026

6

±

60

±

10

2000

19 SIP 12-pin with fin

118

SMA5125

6

±

60

±

10

0.14

18 SIP 12-pin

140

SLA6022

6

±

80

±

5

2000

19 SIP 12-pin with fin

112

SLA5010

6

±

100

+4/–3

0.6/1.3

21 SIP 12-pin with fin

46

SLA6020

6

±

100

±

5

2000

20 SIP 12-pin with fin

110

SLA5023

6

±

100

±

6

2000

0.55

22 SIP 12-pin with fin

62

SLA5072

6

250

7

0.5

23 SIP 15-pin with fin

94

SMA5112

6

250

7

0.5

24 SIP 12-pin

136

SMA5117

6

250

7

0.25

24 SIP 12-pin

138

SLA5075

6

500

±

5

1.4

23 SIP 15-pin with fin

97

SMA5118

6

500

±

5

1.4

24 SIP 12-pin

139

●

3-phase motor driver

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A) h

FE

 (min) R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

SMA6511

5

100

±

15/–60

1.5/–3

2000

25 SIP 12-pin

148

SMA6512

5

60

±

10/–60

1.5/–3

2000

25 SIP 12-pin

150

●

Stepper motor driver with dual supply voltage switch

Product  index  by  function

Motor driver

Part Number Number of chips V

CEO

 • V

DSS

 (V) I

C

 • I

D

 (A) h

FE

 (min) R

DS (ON) 

max (

Ω

) Equivalent circuit

Package

Page

SLA5074

4

60

5

0.3

26 SIP 15-pin with fin

96

SLA5065

4

60

7

0.1

26 SIP 15-pin with fin

90

SLA5073

6

60

5

0.3

27 SIP 15-pin with fin

95

SLA5068

6

60

7

0.1

28 SIP 15-pin with fin

91

●

5-phase motor driver

9

●

Equivalent circuit (Motor driver)

J

K

L

M

N

O

P

Q

R

1

2

3

4

5

6

7

8

9

0

A

B

C

D

E

F

G

H

I

10

Application

Typical circuit example

STA301A

STA460C

STA371A

STA413A

STA401A

SDC06

STA406A

STA435A

STA471A

STA475A

STA481A

STA485A

STA4010

SDC04

SDC03

SLA4031

SLA5002

SLA4041

SLA5003

SLA4060

SLA5031

SMA4032

SLA5040

SMA4033

SMA5102

SDH02

SMA5105

SMA5106

SMA5114

SDK02

SLA4071

SLA5006

SMA4021

STA302A

STA322A

SLA5004

STA308A

STA421A

SLA5005

STA402A

SLA5024

STA408A

STA472A

SLA4070

SMA4020

SDA01

Product type

Transistor

Darlington

Single

MOSFET

●

Solenoid

●

Relay

Product  index  by  applications

11

STA434A

STA431A

STA457C

STA458C

SLA4340

SLA4310

STA4390

SLA8001

SDH03

SLA4391

SLA5007

SLA5008

SLA5013

SLA5018

SMA5103

STA302A+STA303A

SMA6010

SLA6020

SDA05+SDC07

SLA5072

SLA5075

SMA5112

SMA5117

SMA5118

STA304A+STA305A

SLA6012

SLA6022

SLA6023

SLA6024

SLA6026

SMA6014

SLA5022

SLA5023

SLA5009
SLA5010
SLA5017
SLA5059
SLA5060
SLA5061
SLA5064
SLA5079+SLA5080
SMA5104
SMA5125
SMA5127

●

DC motor

Forward-reverse

control

PWM control

●

3-phase DC

brushless

motor

100V AC direct drive

200V AC direct drive

200V AC direct drive

PWM control

Application

Typical circuit example

Product type

Transistor

Darlington

Single

MOSFET

12

STA401A

STA460C

STA406A

STA413A

STA435A

SDC06

STA471A

STA475A

STA481A

STA485A

SLA4010

SDC04

SDC03

SMA6511

SMA6512

STA473A

STA421A

STA506A

STA472A

STA412A

STA505A

STA408A

SDC01

STA504A

STA404A

STA501A

STA403A

SMA5101

STA402A

SLA5024

SMA4030

SLA5005

SMA4020

SLA5004

SLA4070

SLA5001

SLA4060

SLA4030

SDA01

●

Stepper

Constant voltage

motor

drive

Dual supply voltage

drive

Bipolar drive

Application

Typical circuit example

SLA5011

SLA5012

SLA5029

SLA5015

SLA5065+SLA5068

SLA5086

SLA5073+SLA5074

SLA5085

N–CH

P–CH

●

5-phase

motor

Application

Typical circuit example

SLA5021

SLA5047

SLA5041

SLA5044

SLA5037

SLA5052

SLA5046

SLA5049

SLA5042

SLA5054

SLA5057

SLA5055
SLA5058
SLA5070
SLA5077
SLA5081
SLA5088

100V

150V

200V

250V

●

"S" shape

correction

switch

Product  index  by  applications

Application

Typical circuit example

Product type

Transistor

Darlington

Single

MOSFET

Product type

Product type

13

Inappropriate storage, characteristic inspection, or handling

may impair the reliability of the device.  To ensure high reliabil-

ity, observe the following precautions:

1. Storage precautions

●

It is recommended to store the device at room temperature

(between 5 and 35

°

C) and relative humidity of 40 to 75%.

Avoid storing the device in a place where the temperature or

humidity is high or changes greatly.

●

Store the device in a clean place that is not exposed to direct

sunlight, and is free from corrosive or harmful gases.

●

If the device is stored for a long time, check the solderability

and lead condition before using the device.

2. Precautions on characteristic inspections

When carrying out characteristic inspections on receiving

products or other occasions, take care to avoid applying a surge

voltage from the measuring equipment and check the termi-

nals of the measuring equipment for a short circuit or wiring

errors.  Measure the device within the range of its rated values.

3. Silicone Grease

When attaching a heatsink, apply a small amount of silicone

evenly to the back of the device and both sides of the insulator

to reduce the thermal resistance between the device and

heatsink.

   Recommended silicone grease

●

G746

SHINETSU SILICONE CO., LTD.

●

YG6260

GE TOSHIBA SILICONE CO., LTD.

●

SC102

DOW CORNING TORAY SILICONE CO., LTD.

Please select a silicone grease carefully since the oil in

some grease can penetrate the product, which will result

in an extremely short product life.

4. Screw tightening torque

If screws are not tightened with sufficient torque, this can in-

crease the thermal resistance and reduce the radiation effect.

Tightening screws with too great a torque damage the screw

thread, deform the heatsink, or twist the device frame until it is

damaged.  Therefore, tighten screws with a torque between

0.588 and 0.784 N • m (6 to 8 kgf • cm).

5. Soldering temperature

If soldering is necessary, take care to keep the application of

heat as brief as possible, and within the following limits:

260

±

5

°

C for 10 s max

350

°

C for 3 s max (soldering iron)

6. Heatsink

A large contact area between the device and the heatsink for

effective heat radiation is required.  To ensure a large contact

area, minimize mounting holes and select a heatsink with a

sufficiently smooth surface and that is free from burring or metal

debris.

7. Handling precautions to protect power

MOSFET arrays from static damage

●

When handling the device, physical grounding is necessary.

Wear a wrist strap with a 1 M

Ω

 resistor close to the body in

the wrist strap to prevent electric shock.

●

Use a conductive tablemat or floor mat at the device han-

dling workbench and to ensure grounding.

●

When using a curve tracer or other measuring equipment,

ground the equipment as well.

●

When soldering, ground the bit of the soldering iron and the

dip tank to prevent a leakage voltage from damaging the

device.

●

Store the device in the shipping container or a conductive

container or use aluminum foil to protect the device from

static electricity.

Storage, characteristic inspection, and handling precautions

14

1. What is avalanche energy capability ?

When a MOSFET is used for high-speed switching, the in-

ductive load and wiring inductance may cause a counter elec-

tromotive voltage at cutoff that the device cannot withstand.

Avalanche energy capability is the non-clamped ability to with-

stand damage expressed as energy.  As long as the energy

applied to the device at cutoff is within the guaranteed ava-

lanche energy capability, the device will not be damaged even

if the drain-source voltage exceeds the capability.

For example, a drain-source voltage that is within the guaran-

teed capability when electrically stationary may exceed the limit

at startup or cutoff.  Usually, a snubber circuit or similar surge

absorbing circuit is used to keep the drain-source voltage within

the guaranteed capability.  Sanken MOSFETs, however, do not

require this kind of protective circuit because the avalanche

energy capability is guaranteed.  Sanken MOSFETs enable

the number of parts to be reduced, saving board area.

* Consult the engineering department of Sanken when plan-

ning to use MOSFETs in avalanche mode.

2. EAS calculation method

If the current in an inductive load L is I

LP

 at the moment when

the MOSFET is cut off, E

AS

 can be expressed as follows:

*V

DD 

: Supply voltage

If the value of L is not known in an actual circuit, EAS can

also be calculated from the actual voltage and current wave-

forms as follows:

E

AS

 = P

S

 • t .....................................................................

2

*P

S

 : Surge power  *t : Surge time

The following calculation is used to determine E

AS

 where the

voltage and current shown in Fig. A are applied to the MOSFET

in a circuit

Integrate the overlapping section of I

D

 and V

DS

 to calculate

∫

I

D

 • V

DS

 • dt.  When the I

D

 waveform is triangular, E

AS

 will be as

follows:

E

AS 

=       • 10(A) • 550(V) • 10(

µ

s) = 27.5(mJ)

3. Temperature derating for EAS

The E

AS

 value in the specifications is guaranteed when the

channel temperature T

ch

 is 25

°

C.  Since the E

AS

 value drops as

the channel temperature rises, derating depending on the tem-

perature is necessary.

Fig. B shows the derating curve for single avalanche energy

capability.  This is the derating curve of E

AS

 and the channel

temperature (T

ch

 (start)) immediately before the avalanche oc-

curs in the product, with the E

AS

 value (maximum rating) at

25

°

C as 100%.

For example, if the product temperature is 50

°

C, the E

AS

 value

is derated to 64% of the value at 25

°

C.

Fig. A

Fig. B

4. Continuous avalanche energy capability

This section explains the derating method for continuous ava-

lanche.

Considering continuous avalanche as the repetition of a single

avalanche, the safe operating area (SOA) is determined using

the derating curve shown in Fig. B.

Calculate the energy and T

ch

 (start) of avalanche in the worst

condition and determine SOA using the calculated data and

the derating curve shown in Fig. B.  The temperature rise due

to avalanche should not cause the channel temperature to ex-

ceed the maximum rating.

The following is an example of determining SOA judgment by

calculation when a MOSFET enters a transient avalanche state

at power-on then changes to a stationary state

Supposing that the waveform is as shown in Fig. C until the

MOSFET changes to the stationary state, calculate the start

loss and switching (turn-on/off) loss.  To simplify the calcula-

tion, the average loss Pa and the last two waveforms are used

for approximation.  (Fig. D)

First, calculate the channel temperature T

ch

  (

τ

) at time (

τ

)

where the temperature condition is severest.

If the T

ch

 (

τ

) value is within the maximum rating, there is no

problem as far as the temperature is concerned.

10A

550V
(V

DSS

)

550V
(V

DSS

)

0

0

I

D

V

DS

10   s

µ

100

80

60

40

20

0

25

50

75

100

125

150

Tch (start) (

°

C)

E

AS(normalized) 

(%)

I

Lp 

=

 

I

D

 max

E

AS

 – Tch (start)

Avalanche energy capability of MOSFET array

Sanken MOSFETs feature guaranteed
avalanche energy capability.

E

AS

 =

• L • I

LP

2 

 •                    .......................................

1

1
2

V

DSS

V

DSS 

– V

DD

1
2

15

T

ch

(

τ

) = T

a 

+ P

a 

• r

ch–c 

(T

n 

+ T + t

1 

+ t

2 

+ t

3

)

+ (P

1

 – P

a

) • r

ch–c 

(T + t

1

 + t

2

 + t

3

)

– (P

1

 – P

2

) • r

ch–c 

(T + t

2

 + t

3

)

+ (P

3

 – P

2

) • r

ch–c 

(T + t

3

)

– P

3

 • r

ch–c 

(T) + P

4 

• r

ch–c 

(t

4 

+ t

5 

+ t

6

)

– (P

4

 – P

5

) • r

ch–c 

(t

5 

+ t

6

)

+ (P

6

 – P

5

) • r

ch–c 

(t

6

)................................................

3

*T

a

:  Ambient temperature

*r

ch-c

 (

t

) :    Transient thermal resistance at pulse width t

Then calculate the channel temperature T

ch

 (

τ

l) immediately

before avalanche.

T

ch

(

τ

) = T

a 

+ P

a 

• r

ch–c 

(T

n 

+ T

’

 + t

1 

+ t

2 

+ t

3

)

+ (P

1

 – P

a

) • r

ch–c 

(T

’

 + t

1

 + t

2

 + t

3

)

– (P

1

 – P

2

) • r

ch–c 

(T

’

 + t

2

 + t

3

)

+ (P

3

 – P

2

) • r

ch–c 

(T

’

 + t

3

)

– P

3

 • r

ch–c 

(T

’

) + P

4 

• r

ch–c 

(t

4 

+ t

5 

+ t

6

)

– (P

4

 – P

5

) • r

ch–c 

(t

5 

+ t

6

)

+ (P

6

 – P

5

) • r

ch–c 

(t

6

)................................................

4

This T

ch

 (

τ

) value becomes T

ch

 (

start

).  If the avalanche energy

(E

AS

 = P

6 

• t

6

) is within the value derated from the guaranteed

E

AS

 value at the temperature, there is no problem as far as the

avalanche energy is concerned.

Fig. E

V

GS

0V

R

G

V

DS

V

DD

I

L

L

(a)  Measuring circuit

(b)  Output waveform

V

(BR)DSS

V

(BR)DSS

V

(BR)DSS 

–

 

V

DD

1
2

V

DS

V

DD

I

L

I

Lp

E

AS 

=     • L • I

Lp

2

 •    

Fig. C

T

(n)

I

D

V

DS

Avalanche in this section

Transient

Stationary

Fig. D

T

(n)

t

1

t

2

t

3

t

4

t

5

t

6

P

a

P

1

P

2

P

3

P

4

P

5

P

6

τ

1

τ

T

T'

0

5. Avalanche energy capability measuring method

16

The Darlington transistor chip with a built-in avalanche diode

is a planar type monolithic Darlington transistor chip having

the equivalent circuit shown in the figure on the right. Surge

Voltage can be absorbed by the avalanche diode provided be-

tween the collector and the base. This eliminated the need for

extra components for absorbing surge caused by counter elec-

tromotive force produced by inductive load switch circuits. These

Darlington transistor arrays are ideal for relay drive, solenoid

drive, and printer wire drive applications.

Transistor array with built-in avalanche diode

SLA4010, STA301A, 371A, 401A, 406A, 413A, 435A,
460C, 471A, 475A, 481A, 485A, SDC03, 04, 0 6

Switching time measurement

1. Transistor array

Fig. 1  PNP

2. MOS FET array

I

B2

R

2

R

1

R

L

I

B1

I

C

+V

BB2

–V

BB1

–V

CC

GND

0

D.U.T

50   s

0

0

t

on

t

stg

t

f

0.1I

C

0.9I

C

I

B2

I

B1

I

C

0

0

0

(a) Measuring circuit

(b) Input-output waveform

Base 
current

Collector 
current

µ

20   s

µ

Fig. 2  NPN

I

B1

R

1

R

2

R

L

I

B2

I

C

+V

BB1

–V

BB2

V

CC

GND

0

D.U.T

0

0

t

on

t

stg

t

f

0.9I

C

0.1I

C

I

B2

I

B1

I

C

0

0

0

(a) Measuring circuit

(b) Input-output waveform

50   s

µ

20   s

µ

Base 
current

Collector 
current

Fig. 3   Nch

Fig. 4  Pch

V

GS

0V

R

G

V

DS

V

DD

I

D

R

L

(a) Measuring circuit

(b) Input-output waveform

P.W.=10   s
Duty cycle

≤

1%

t

d(on)

t

on

t

r

t

d(off)

t

off

t

r

90%

10%

90%

10%

V

GS

V

DS

µ

0V

V

GS

R

G

V

DS

V

DD

I

D

R

L

P.W.=10   s
Duty cycle

≤

1%

t

d(on)

t

on

t

r

t

d(off)

t

off

t

r

10%

90%

10%

90%

V

GS

V

DS

(a) Measuring circuit

(b) Input-output waveform

µ

17

External dimensions

  (unit: mm)

A  SLA (12-pin)

31.5max

9.5min

16.0

±

0.2

13.0

±

0.2

2.7

31.0

±

0.2

24.4

±

0.2

Ellipse

3.2

±

0.15

 

×

 

3.8 4.8

±

0.2

1.7

±

0.1

2.2

±

0.7

1.2

±

0.15

1.45

±

0.15

0.55

–0.1

+0.2

0.85

–0.1

+0.2

12

a. Part No.
b. Lot No.

11 

×

 

P2.54

±

0.7

 = 27.94

±

1.0

Pin1

3.2

±

0.15

φ

a

b

31.0

±

0.2

10.2

±

0.2

(10.4)

2.4

1.46

±

0.15

4.0

±

0.2

2.5

±

0.2

1.2

±

0.1

27.94

2.54

0.85

–0.1

+0.2

0.55

–0.1

+0.2

a

b

a. Part No.
b. Lot No.

B  SMA

C  STA (8-pin)

9.0

±

0.2

2.3

±

0.2

11.3

±

0.2

4.7

±

0.5

0.5

±

0.15

1.2

±

0.2

4.0

±

0.2

0.5

±

0.15

C1.5

±

0.5

1.0

±

0.25

(2.54)

9

 

×

 

2.54 = 22.86

±

0.25

25.25

±

0.2

a

b

1

2

3

4

5

6

7

8

9 10

a. Part No.
b. Lot No.

     STA (10-pin)

6.8max

4.0max

3.6

±

0.2

0.25

1.4

±

0.2

8.0

±

0.5

6.3

±

0.2

9.8

±

0.3

1.0

±

0.3

2.54

±

0.25

19.56

±

0.2

20.0max

0.89

±

0.15

0.75

–0.05

+0.15

0.3

–

0.05

+0.15

16

0~0.1

3.0

±

0.2

a

b

a. Part No.
b. Lot No.

9

8

1

1

C1.5

±

0.5

1.2

±

0.2

0.5

±

0.15

7 

×

 

P2.54=17.78

1.0

±

0.25

0.5

±

0.15

(2.54)

20.4 max

4.7

±

0.5

11.3

±

0.2

2.5 max

9.0

±

0.2

2

3

4

5

6

7

8

4.0

±

0.2

Pin No.

Weight : Approx. 2.0g

Weight : Approx. 2.6g

Weight : Approx. 4.0g

Weight : Approx. 1.05g

D  SD

Weight : Approx. 6.0g

31.3

±

0.2

4.8

±

0.2

1.7

±

0.1

2.45

±

0.2

9.9

±

0.2

13.0

±

0.2

16.0

±

0.2

31.0

±

0.2

24.4

±

0.2

16.4

±

0.2

1.15

–0.1

+0.2

0.55

–0.1

+0.2

9.7

–

0.5

+1.0

0.65

–0.1

+0.2

3.2

±

0.15

φ

3.2

±

0.15

× 

3.8

φ

14 

× 

P2.03

±

0.7

=28.42

±

1.0

R-End

4.0

±

0.7

(3.0)

6.7

±

0.5

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15

     SLA (15-pin)

Weight : Approx. 6.0g

18

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

60

±

10

V

V

CEO

60

±

10

V

V

EBO

6

V

I

C

4

A

I

CP

6 (PW

≤

10ms, D

u

≤

50%)

A

I

B

0.5

A

5 (T

a

=25

°

C)

40 (T

c

=25

°

C)

T

j

150

°

C

T

stg

–40 to +150

°

C

SLA4010

Absolute maximum ratings

(T

a

=25

°

C)

Symbol

unit

Conditions

I

CBO

10

µ

A

V

CB

=50V

I

EBO

10

mA

V

EB

=6V

V

CEO

50

60

70

V

I

C

=10mA

h

FE

2000

V

CE

=4V, I

C

=3A

V

CE

(sat)

1.5

V

I

C

=3A, I

B

=10mA

■

Equivalent circuit diagram

P

T

W

5

4

3

2

1

0

0

1

2

3

4

1.0mA

0.8mA

0.6mA

0.5mA

0.4mA

0.3mA

I

B

=2.0m

A

V

CE

  (V)

I

C

  (A)

20000

0.05

0.1

1

4

I

C

  (A)

10000

5000

1000

500

100

50

0.5

h

FE

(V

CE

=4V) 

typ

20000

10000

5000

1000

500

100

50

0.05

0.1

0.5

1

4

T

a

=125

°

C

25

°

C

–30

°

C

h

FE

I

C

  (A)

(V

CE

=4V)

0.1

2

1

0

0.5

1

4

I

C

  (A)

V

CE

  (sat) (V)

T

a

=–30

°

C

25

°

C

125

°

C

(I

C

 / I

B

=1000)

3

2

1

0

0.2

0.5

1

5

10

50

100

V

CE

  (sat) (V)

I

B

  (mA)

I

C

=4A

I

C

=2A

I

C

=3A

I

C

=1A

20

10

5

1.0

0.5

1

5

10

50 100

500 1000

θ

j–

a

  (

°

C / W)

PW  (mS)

5

3

5

10

50

100

V

CE

  (V)

1

0.5

0.1

I

C

  (A)

10m

s

1ms

100

ms

D.C.T

C

=25

°

C

10

0.05

Single Pulse

Without Heatsink

T

a

=25

°

C

R

1

: 3k

Ω 

typ  R

2

: 150

Ω 

typ

1

R

1

R

2

4

8

11

12

9

5

2

10

7

6

3

NPN Darlington

With built-in avalanche diode

40

30

20

10

0

0

–40

50

100

150

P

T

  (W)

Ta  (

°

C)

Without Heatsink

50

×

50

×

2mm

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

With Infinite Heatsink

100

×

100

×

2

0

1

V

BE

  (V)

2

3

4

2

1

0

I

C

  (A)

(V

CE

=–4V)

T

a

=125

°

C

75

°

C

2

5

°

C

–

3

0

°

C

Electrical characteristics

Specification

min

typ

max

External dimensions

A

 • • • 

SLA (12-pin)

19

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

SLA4030

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

120

V

V

CEO

100

V

V

EBO

6

V

I

C

4

A

I

CP

6 (PW

≤

1ms, D

u

≤

50%)

A

I

B

0.5

A

5 (T

a

=25

°

C)

25 (T

c

=25

°

C)

V

ISO

1000 (Between fin and lead pin, AC)

V

rms

T

j

150

°

C

T

stg

–40 to +150

°

C

θ

j-c

 5

°

C/W

(T

a

=25

°

C)

Symbol

Unit

Conditions

I

CBO

10

µ

A

V

CB

=120V

I

EBO

10

mA

V

EB

=6V

V

CEO

100

V

I

C

=10mA

h

FE

2000

V

CE

=4V, I

C

=2A

V

CE

(sat)

1.5

V

I

C

=2A, I

B

=10mA

P

T

1

2

R

1

R

2

3

5

4

6

9

7

11

10

8

12

R

1

: 3k

Ω 

typ  R

2

: 500

Ω 

typ

4

3

2

1

0

0

1

2

3

V

CE

  (V)

I

C

  (A)

4

5

6

0.8mA

0.6mA

0.5mA

0.4mA

0.3mA

I

B

=1mA

20000

0.02

0.05

0.1

1

4

I

C

  (A)

10000

5000

1000

500

100

50

20

0.5

h

FE

(V

CE

=2V)

typ

20000

0.02

0.05

0.1

1

4

I

C

  (A)

10000

5000

1000

500

100

50

20

0.5

h

FE

(V

CE

=2V)

75

°

C

25

°

C

–30

°

C

T

a

=125

°

C

0.5

3

2

1

0

0.3

1

5

 I

C

  (A)

 V

CE

  (sat) (V)

T

a

=125

°

C

7

5

°

C

25

°

C

–3

0

°

C

(I

C

 / I

B

=500)

3

2

1

0

0.1

0.5

1

5

10

V

CE

  (sat) (V)

I

B

  (mA)

50

I

C

=4A

I

C

=2A

I

C

=1A

4

3

2

1

0

0

1

2

3

V

BE

  (V)

I

C

  (A)

75

°

C

25

°

C

–

30

°

C

(V

CE

=2V)

T

a

=125

°

C

25

20

15

10

5

0
–40

0

50

100

150

T

a

  (

°

C)

P

T

  (W)

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

With Infinite Heatsink

100

×

100

×

2

50

×

50

×

2

Without Heatsink

NPN Darlington

General purpose

5

3

5

10

50

200

V

CE

  (V)

1

0.5

0.1

I

C

  (A)

10

0.03

0.05

100

1

0

m

s

1m

s

100

µ

s

Single Pulse
Without Heatsink
T

a

=25

°

C

20

10

5

1

0.5

5

1

10

100

1000

500

50

PW  (mS)

θ

j–

a

  (

°

C / W)

Absolute maximum ratings

Electrical characteristics

■

Equivalent circuit diagram

Specification

min

typ

max

External dimensions

A

 • • • 

SLA (12-pin)

W

20

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

SLA4031

(T

a

=25

°

C)

Symbol

Unit

Conditions

I

CBO

10

µ

A

V

CB

=120V

I

EBO

10

mA

V

EB

=6V

V

CEO

120

V

I

C

=25mA

h

FE

2000

5000

15000

V

CE

=2V, I

C

=2A

V

CE 

(sat)

1.0

1.5

V

V

BE 

(sat)

1.6

2.0

V

t

on

0.6

µ

s

V

CC

40V,

t

stg

5.0

µ

s

I

C

=2A,

t

f

2.0

µ

s

I

B1

=–I

B2

=10mA

P

T

W

I

C

=2A, I

B

=2mA

(T

a

=25

°

C)

Symbol

Unit

Conditions

V

R

120

V

I

R

=10

µ

A

V

F

1.2

V

I

F

=1A

I

R

10

µ

A

V

R

=120V

t

rr

100

ns

I

F

=

±

100mA

■

Equivalent circuit diagram

1

2

3

4

6

5

R

1

R

2

8

9

10

11

7

12

R

1

: 3k

Ω 

typ  R

2

: 500

Ω 

typ

4

3

2

1

0

0

1

2

3

V

CE

  (V)

I

C

  (A)

4

5

0.8m

A

0.6mA

0.5mA

0.4mA

0.3mA

I

B

=1

m

A

20000

0.02

0.05

0.1

1

4

 I

C

  (A)

10000

5000

1000

500

100

50

20

0.5

h

FE

(V

CE

=2V)

typ

20000

0.02

0.05

0.1

1

4

I

C

  (A)

10000

5000

1000

500

100

50

20

0.5

h

FE

(V

CE

=2V)

75

°

C

25

°

C

–3

0

°

C

T

a

=125

°

C

0.5

3

2

1

0

0.3

1

5

 I

C

  (A)

 V

CE

  (sat) (V)

T

a

=125

°

C

7

5

°

C

25

°

C

–3

0

°

C

(I

C

 / I

B

=500)

3

2

1

0

0.1

0.5

1

5

10

V

CE

  (sat) (V)

I

B

  (mA)

50

I

C

=4A

I

C

=2A

I

C

=1A

4

3

2

1

0

0

1

2

3

V

BE

  (V)

I

C

  (A)

T

a

=

125

°

C

7

5

°

C

25

°

C

–

30

°

C

(V

CE

=2V)

25

20

15

10

5

0
–40

0

50

100

150

T

a

  (

°

C)

P

T

  (W)

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

With Infinite Heatsink

Without Heatsink

100

×

100

×

2

50

×

50

×

2

5

3

5

10

50

200

V

CE

  (V)

1

0.5

0.1

 I

C

  (A)

10

0.03

0.05

100

1

0

m

s

1m

s

100

µ

s

Single Pulse
Without Heatsink
T

a

=25

°

C

NPN Darlington

With built-in flywheel diode

Absolute maximum ratings

Electrical characteristics

Specification

min

typ

max

●

Diode for flyback voltage absorption

Specification

min

typ

max

External dimensions

A

 • • • 

SLA (12-pin)

20

10

5

1

0.5

5

1

10

100

1000

500

50

PW  (mS)

θ

j–

a  (

°

C / W)

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

120

V

V

CEO

120

V

V

EBO

6

V

I

C

4

A

I

CP

6 (PW

≤

1ms, D

u

≤

50%)

A

I

B

0.5

A

I

F

4 (PW

≤

0.5ms, D

u

≤

25%)

A

I

FSM

6 (PW

≤

10ms, Single)

A

V

R

120

V

5 (T

a

=25

°

C)

25 (T

c

=25

°

C)

V

ISO

1000 (Between fin and lead pin, AC)

V

rms

T

j

150

°

C

T

stg

–40 to +150

°

C

θ

j-c

 5

°

C/W

21

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

SLA4041

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

200

V

V

CEO

200

V

V

EBO

6

V

I

C

3

A

I

CP

6 (PW

≤

10ms, D

u

≤

50%)

A

I

B

0.2

A

I

F

3 (PW

≤

0.5ms, D

u

≤

25%)

A

I

FSM

6 (PW

≤

10ms, single)

A

V

R

200

V

5 (T

a

=25

°

C)

25 (T

c

=25

°

C)

T

j

150

°

C

T

stg

–40 to +150

°

C

(T

a

=25

°

C)

Symbol

Unit

Conditions

I

CBO

10

µ

A

V

CB

=200V

I

EBO

10

mA

V

EB

=6V

V

CEO

200

V

I

C

=10mA

h

FE

1000

6000

15000

V

CE

=4V, I

C

=1.5A

V

CE

(sat)

1.1

1.5

V

V

BE

(sat)

1.7

2.0

V

V

FEC

1.5

V

I

FEC

=2.0A

■

Equivalent circuit diagram

P

T

W

I

C

=1.5A, I

B

=3mA

(T

a

=25

°

C)

Symbol

Unit

Conditions

V

R

200

V

I

R

=10

µ

A

V

F

1.6

V

I

F

=1A

I

R

10

µ

A

V

R

=200V

t

rr

100

ns

I

F

=

±

100mA

●

Diode for flyback voltage absorption

6

5

4

3

2

1

0

I

C

  (A)

0

1

2

3

4

5

6

V

CE

  (V)

I

B

=200mA

30m

A

100mA

3mA

10mA

1mA

(V

CE

=4V)

5000

1000

500

100

50

30

0.03

0.05 0.1

0.5

1

5 6

h

FE

I

C

  (A)

5000

1000

500

100

50

30

0.03 0.05

0.1

0.5

5 6

(V

CE

=4V)

h

FE

I

C

  (A)

75

°

C

T

a

=125

°

C

25

°

C

–30

°

C

3

2

1

0

V

CE

  (sat) (V)

0.2

0.5

1

5 6

I

C

  (A)

(I

C

 / I

B

=100)

Ta=125

°

C

25

°

C

–

30

°

C

75

°

C

3

2

1

0

V

CE

  (sat) (V)

I

C

=3A

I

C

=1.5A

I

C

=1A

0.5

1

5

10

50

100 200

I

B  

(mA)

6

5

4

3

2

1

0

0

1

2

3

I

C

  (A)

V

BE

  (V)

(V

CE

=4V)

T

a

=125

°

C

25

°

C

–

3

0

°

C

7

5

°

C

20

10

5

1

0.5

1

5

10

50

100

500 1000

θ

j–

a

  (

°

C / W)

PW  (mS)

25

20

15

10

5

0
–40

0

50

100

150

T

a

  (

°

C)

P

T

  (W)

With Infinite Heatsink

Without Heatsink

10

0

×

10

0

×

2

50

×

50

×

2

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

100

µ

S

1mS

10m

S

10

5

1

0.5

0.1

0.05

0.03

5

10

50

100

200

I

C

  (A)

V

CE

  (V)

Single Pulse
Without Heatsink
T

a

=25

°

C

R

1

: 2k

Ω 

typ  R

2

: 200

Ω 

typ

1

2

3

4

6

5

R

1

R

2

8

9

10

11

7

12

NPN Darlington

With built-in flywheel diode

Absolute maximum ratings

Electrical characteristics

Specification

min

typ

max

Specification

min

typ

max

External dimensions

A

 • • • 

SLA (12-pin)

22

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

SLA4060

(T

a

=25

°

C)

Symbol

Unit

Conditions

I

CBO

10

µ

A

V

CB

=120V

I

EBO

10

mA

V

EB

=6V

V

CEO

120

V

I

C

=25mA

h

FE

2000

5000

15000

V

CE

=2V, I

C

=3A

V

CE

(sat)

1.0

1.5

V

V

BE

(sat)

1.6

2.0

V

t

on

0.5

µ

s

V

CC

30V,

t

stg

5.5

µ

s

I

C

=3A,

t

f

1.5

µ

s

I

B1

=–I

B2

=3mA

■

Equivalent circuit diagram

P

T

W

I

C

=3A, I

B

=3mA

1

2

R

1

R

2

3

5

4

6

9

7

11

10

8

12

R

1

: 2.5k

Ω 

typ  R

2

: 200

Ω 

typ

5

4

0

1

 V

CE

  (V)

I

C

  (A)

3

2

1

0

2

3

4

5

1mA 0.8mA 0.7mA

I

B

=2mA

0.5mA

0.4mA

0.6mA

20000

10000

5000

1000

500

100

0.02

 I

C

  (A)

h

FE

50

20

0.05

0.5

1

5

(V

CE

=2V)

0.1

typ

20000

10000

5000

1000

500

100

0.02

IC  (A)

h

FE

50

20

0.05

0.5

1

5

0.1

75

°

C

25

°

C

T

a

=125

°

C

–3

0

°

C

(V

CE

=2V)

V

CE

  (sat) (V)

0.5

 I

C

  (A)

0

5

2

1

1

(I

C

 / I

B=

1000)

125

°

C

25

°

C

75

°

C

Ta=–30

°

C

3

V

CE

  (sat) (V)

0.2

I

B

  (mA)

0

0.5

10

50

2

1

1

5

I

C

=3A

I

C

=1A

I

C

=5A

5

4

0

V

BE

  (V)

I

C

   (A)

3

2

1

0

1

2

3

(V

CE

=2V)

75

°

C

25

°

C

–

30

°

C

T

a

=125

°

C

20

10

5

1

0.5

1

5

10

50 100

500 1000

PW  (mS)

θ

j–

a

  (

°

C / W)

25

20

15

10

5

0

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

–40

0

50

100

150

T

a

  (

°

C)

P

T

  (W)

With Infinite Heatsink

Without Heatsink

100

×

100

×

2

50

×

50

×

2

10

5

1

0.5

0.1

V

CE

  (V)

I

C

  (A)

0.03

0.05

Single Pulse
Without Heatsink
Ta=25

°

C

100

µ

s

1ms

1

0

m

s

3

5

10

50

100

200

NPN Darlington

General purpose

Absolute maximum ratings

Electrical characteristics

Specification

min

typ

max

External dimensions

A

 • • • 

SLA (12-pin)

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

120

V

V

CEO

120

V

V

EBO

6

V

I

C

5

A

I

CP

8 (PW

≤

1ms, D

u

≤

50%)

A

I

B

0.5

A

5 (T

a

=25

°

C)

25 (T

c

=25

°

C)

V

ISO

1000 (Between fin and lead pin, AC)

V

rms

T

j

150

°

C

T

stg

–40 to +150

°

C

θ

j-c

 5

°

C/W

23

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

(T

a

=25

°

C)

Symbol

Unit

Conditions

I

CBO

10

µ

A

V

CB

=120V

I

EBO

10

mA

V

EB

=6V

V

CEO

120

V

I

C

=25mA

h

FE

2000

5000

15000

V

CE

=2V, I

C

=3A

V

CE

(sat)

1.0

1.5

V

V

BE

(sat)

1.6

2.0

V

t

on

0.5

µ

s

V

CC

30V,

t

stg

5.5

µ

s

I

C

=3A,

t

f

1.5

µ

s

I

B1

=–I

B2

=3mA

SLA4061

■

Equivalent circuit diagram

P

T

W

I

C

=3A, I

B

=3mA

(T

a

=25

°

C)

Symbol

Unit

Conditions

V

R

120

V

I

R

=10

µ

A

V

F

1.2

V

I

F

=1A

I

R

10

µ

A

V

R

=120V

t

rr

100

ns

I

F

=

±

100mA

●

Diode for flyback voltage absorption

R

1

: 2.5k

Ω 

typ  R

2

: 200

Ω 

typ

5

4

0

1

V

CE

  (V)

I

C

  (A)

3

2

1

0

2

3

4

5

1mA 0.8mA

0.7mA

0.6mA

I

B

=2mA

0.4mA

0.5mA

20000

10000

5000

1000

500

100

0.02

 I

C

  (A)

 h

FE

50

20

0.05

0.5

1

5

(V

CE

=2V)

0.1

typ

20000

10000

5000

1000

500

100

0.02

50

20

0.05

0.5

1

5

0.1

75

°

C

–30

°

C

T

a

=125

°

C

25

°

C

 I

C

  (A)

 h

FE

(V

CE

=2V)

0

0.5

5

2

1

1

125

°

C

25

°

C

T

a

=–30

°

C

75

°

C

V

CE

  (sat) (V)

 I

C

  (A)

(I

C

 / I

B

=1000)

3

0.2

0

0.5

10

50

2

1

1

5

I

C

=3A

I

C

=1A

I

C

=5A

V

CE

  (sat) (V)

I

B 

 (mA)

5

4

0

3

2

1

0

1

2

3

75

°

C

25

°

C

–

30

°

C

T

a

=

1

2

5

°

C

V

BE

  (V)

I

C

  (A)

(V

CE

=2V)

20

10

5

1

0.5

1

5

10

50 100

500 1000

PW  (mS)

θ

j–

a

  (

°

C / W)

25

20

15

10

5

0
–40

0

50

100

150

T

a

  (

°

C)

P

T

  (W)

With Infinite Heatsink

Without Heatsink

100

×

100

×

2

50

×

50

×

2

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

10

5

1

0.5

0.1

0.03

0.05

Single Pulse
Without Heatsink
T

a

=25

°

C

100

µ

s

1

m

s

10m

s

3

5

10

50

100

200

V

CE

  (V)

I

C

  (A)

NPN Darlington

With built-in flywheel diode

1

2

3

4

6

5

R

1

R

2

8

9

10

11

7

12

Specification

min

typ

max

Specification

min

typ

max

External dimensions

A

 • • • 

SLA (12-pin)

Absolute maximum ratings

Electrical characteristics

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

120

V

V

CEO

120

V

V

EBO

6

V

I

C

5

A

I

CP

8 (PW

≤

1ms, D

u

≤

50%)

A

I

B

0.5

A

I

F

5 (PW

≤

0.5ms, D

u

≤

25%)

A

I

FSM

8 (PW

≤

10ms, single)

A

V

R

120

V

5 (T

a

=25

°

C)

25 (T

c

=25

°

C)

V

ISO

1000 (Between fin and lead pin, AC)

V

rms

T

j

150

°

C

T

stg

–40 to +150

°

C

θ

j-c

 5

°

C/W

24

Characteristic curves

I

C

-V

CE

 Characteristics (Typical)

h

FE

-I

C 

Characteristics (Typical)

h

FE

-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

C 

Temperature Characteristics (Typical)

V

CE

(sat)-I

B

 Characteristics (Typical)

I

C

-V

BE 

Temperature Characteristics (Typical)

θ

j-a

-PW Characteristics

P

T

-T

a

 Characteristics

Safe Operating Area (SOA)

SLA4070

(T

a

=25

°

C)

Symbol

Unit

Conditions

I

CBO

–10

µ

A

V

CB

=–100V

I

EBO

–10

mA

V

EB

=–6V

V

CEO

–100

V

I

C

=–10mA

h

FE

1000

5000

15000

V

CE

=–2V, I

C

=–3A

V

CE

(sat)

–1.0

–1.5

V

V

BE

(sat)

–1.6

–2.0

V

P

T

W

I

C

=–3A, I

B

=–6mA

R

1

R

2

10

12

7

8

6

5

3

1

11

9

4

2

R

1

: 3k

Ω 

typ  R

2

: 100

Ω 

typ

–8

–6

0

–5

–4

–3

–2

–7

–1

0

–1

–2

–3

–4

–5

–2mA

–1.2mA

–0.8mA

–0.6mA

–0.4mA

I

B

= –4mA

 V

CE

  (V)

I

C

  (A)

10000

5000

1000

500

100

–0.03

50

–0.5

–1

–5

–8

–0.1

typ

 I

C

  (A)

 h

FE

(V

CE

=–4V)

10000

5000

1000

500

100

–0.03

50

–0.5

–1

–5 –8

–0.1

25

°

C

–30

°

C

T

a

=125

°

C

75

°

C

 I

C

  (A)

 h

FE

(V

CE

=–4V)

T

a

= –30

°

C

25

°

C

75

°

C

125

°

C

–3

–0.3

–2

–1

0

–0.5

–1

–5

–8

V

CE

  (sat) (V)

 I

C

  (A)

(I

C

 / I

B

=1000)

I

C

= –5A

I

C

= –3A

I

C

= –1A

–3

–0.3

–1

–5

–10

–50

–100 –200

–2

–1

V

CE

  (sat) (V)

I

B

  (mA)

0

–8

I

C

  (A)

–6

–4

–2

0

V

BE

  (V)

0

–1

–2

–3

75

°

C

25

°

C

–

30

°

C

T

a

=

1

25

°

C

(V

CE

=–4V)

20

10

5

1

0.5

1

5

10

50 100

500 1000

PW  (mS)

θ

j–

a

  (

°

C/W)

25

20

15

10

5

0
–40

0

50

100

150

T

a

  (

°

C)

P

T

  (W)

With Silicone Grease
Natural Cooling
Heatsink: Aluminum
in mm

W

ith Infinite H

eatsink

Without Heatsink

10

0

×

10

0

×

2

50

×

50

×

2

–5

–8

–1

–0.5

–0.1

V

CE

  (V)

I

C

  (A)

–0.03

–0.05

–3

–5

–10

–50

–100

10

0

µ

s

1m

s

10m

s

Single Pulse
Without Heatsink
T

a

=25

°

C

PNP Darlington

General purpose

Absolute maximum ratings

Electrical characteristics

Specification

min

typ

max

■

Equivalent circuit diagram

External dimensions

A

 • • • 

SLA (12-pin)

(T

a

=25

°

C)

Symbol

Ratings

Unit

V

CBO

–100

V

V

CEO

–100

V

V

EBO

–6

V

I

C

–5

A

I

CP

–8 (PW

≤

1ms, D

u

≤

50%)

A

I

B

–0.5

A

5 (T

a

=25

°

C)

25 (T

c

=25

°

C)

V

ISO

1000 (Between fin and lead pin, AC)

V

rms

T

j

150

°

C

T

stg

–40 to +150

°

C

θ

j-c

 5

°

C/W