SMALL SIGNAL TRANSISTORS DATABOOK
1st EDITION
DECEMBER 1989
USE IN LIFE SUPPORT DEVICES OR SYSTEMS MUST BE EXPRESSLY AUTHORIZED
SGS-THOMSON PRODUCTS ARE NOT AUTHORIZED FOR USE AS CRITICAL COMPONENTS IN LIFE SUPPORT DEVICES OR SYSTEMS WITHOUT THE EXPRESS WRITIEN APPROVAL OF SGS-THOMSON Microelectronics. As used herein: 1. Life support devices or systems are those which (a) are intended for surgical implant into the body, or (b) support or sustain life, and whose failure to perform, when properly used in accordance with instructions for use provided with the product, can be reasonably expected to result in significant injury to the user.
2. A critical component is any component of a life support device or system whose failure to perform can reasonably be expected to cause the failure of the life support device or system, or to affect its safety or effectiveness.
TABLE OF CONTENTS
INTRODUCTION ALPHANUMERICAL INDEX PRODUCT GUIDE SELECTION GUIDE CROSS REFERENCE HANDLING PRECAUTION QUALITY SURFACE MOUNTING CASE: SOT-23
DATASHEETS PACKAGES
Page
4
5
7 9 14 24 25 30
35
419
3
INTRODUCTION
This databook contains datasheets covering the range of discrete devices for small signal consumer, industrial and professional applications, including RF devices. A selection guide by characteristics and, for RF devices, by application, is provided to enable fast identification of the most suitable devices for your application. The information on each product has been presented in order that the performance of the product can be readily evaluated within any required equipment design.
4
ALPHANUMERICAL INDEX
Type
Page
Type
Page
Type
Page
BC107 ..... BC108 ............ BC109 ........ BC119 ............ BC139 ........ BC140 ............ BC141 ........... . BC142 ............ BC143 ............ BC160 ........... BC161 ............ BC177 ............ BC178 ............ BC179 ............ BC286 ............ BC287 ............ BC297 ............ BC298 ............ BC300 ............ BC301 ............ BC302 ............ BC303 ............ BC304 ............ BC377 ............ BC378 ............ BC393 ............ BC394 ............ BC440 ............ BC441 ............ BC460 ............ BC461 ............ BC477 ............ BC478 ............ BC479 ............ BCY58 ........... BCY59 ........... BCY70 ........... BCY71 .......... . BCY72 .......... . BCY78 .......... . BCY79 .......... . BF257 ............ BF258 ............
37 37 37 43 45 49 49 53 55 57 57 61 61 61 65 67 69 69 73 73 73 77 77 81 81 83 87 91 91 93 93 95 95 95 101 101 105 105 105 111 111 117 117
BF259 ............ BF457 ............ BF458 ... BF459 ............ BF657 ............ BF658 ............ BF659 ............ BFR17 ............ BFR18 ............ BFR36 ............ BFR97 ........ BFR98 ............ BFR99 ............ BFR99A .......... BFW16A .......... BFW17A .......... BFW43 ........... BFW44 ........... BFX37 ............ BFX38 ............ BFX39 ............ BFX40 ............ BFX41 ............ BFX48 ............ BFX73 ............ BFX89 ... BFX90 ............ BFX91 ............ BFY50 ............ BFY51 ............ BFY52 ............ BFY56 ............ BFY56A .......... BFY64 ............ BFY76 ............ BFY90 ............ BSS26 ............ BSS71S .......... BSS72S .......... BSS74S .......... BSS75S .......... BSV15 ............ BSV16 ............
117 121 121 121 125 125 125 129 133 137 369 403 143 145 151 151 155 155 159 163 163 163 163 167 171 177 181 181 187 187 187 191 191 195 199 177 203 207 209 211 213 215 215
BSX19 .... ........ BSX20 ............ BSX26 .... ....... BSX28. ....... ... . BSX29. ... . .... BSX32. ...... ... . BSX33. . .......... ...... BSX39 .... BSX45 .......... BSX46 ........... BSX88A . ........ BSX93 ....... ." . BSY53 ....... .. .. . BSY54 ...... . ..... BSY55 ....... . .... BSY56 ............ 2N708 ............ 2N718A ........... 2N720A ........... 2N914 ............ 2N918 ..... ...... 2N930 ............ 2N956 ............ 2N1613 ........... 2N1711 ........... 2N1893 ........... 2N2102 ........... 2N2218 ........... 2N2218A .......... 2N2219 ........... 2N2219A .......... 2N2221 ........... 2N2221A .......... 2N2222 ........... 2N2222A .......... 2N2368 ........... 2N2369 ........... 2N2369A .......... 2N2484 ........... 2N2845 ........... 2N2857 ........... 2N2894 ........... 2N2904 ...........
219 219 223 227 231 235 239 243 247 247 251 255 259 259 263 263 267 269 273 275 279 283 269 285 285 289 293 295 297 295 297 295 297 295 297 303 305 307 311 315 319 321 325
ru SGS-THOMSON ~I INIilU©OO@~~~©"ITOO@;i!lU©\\j
5
ALPHANUMERICAL INDEX
6
Type
Page
Type
Page
2N2904A .......... 2N2905 ........... 2N2905A .......... 2N2906 ........... 2N2906A .......... 2N2907 ........... 2N2907A .......... 2N3013 ........... 2N3014 ........... 2N3019 ........... 2N3020 ........... 2N3053 ........... 2N3107 ........... 2N3108 ........... 2N3109 ........... 2N3110 ........... 2N3114 ........... 2N3137 ........... 2N3209 ........... 2N3250 ........... 2N3251 .. - _ .. .... . 2N3301 ........... 2N3302 ........... 2N3502 ........... 2N3503 ........... 2N3504 ........... 2N3505 ........... 2N3600 ........... 2N3700 ........... 2N3724 ........... 2N3725 ........... 2N3866 ........... 2N3930 ........... 2N3931 ........... 2N3962 ........... 2N3963 ........... 2N3964 ........... 2N3965 ........... 2N4013 ........... 2N4014 ........... 2N4030 ........... 2N4031 ........... 2N4032 ...........
327 325 327 325 327 325 327 331 333 335 335 337 339 339 339 339 343 345 321 349 349 353 353 357 357 357 357 171 359 361 365 369 373 373 377 377 377 377 381 385 389 389 389
2N4033 ........... 2N4035 ........... 2N4036 ........... 2N4037 ........... 2N4427 ........... 2N5109 ........... 2N5179 ........... 2N5320 ........... 2N5321 ........... 2N5322 ........... 2N5323 ........... 2N5415S ..........
389 393 397 401 403 407 411 413 413 415 415 417
I ill -:rI SGS·1HOMSON fiIIilU©rnI@~~~©~rnI@IllU©~
Type
I I
Page
I
I
PRODUCT GUIDE
7
SELECTION GUIDE General purpose in TO-39 TYPE
@
VCEO VCER· (V)
20 30 30 30 30 30 35 40 40 40 40 40 40 40 40 40 40 40 45 45 45 50 50 50· 50· 55 55 55 60 60 60 60 60 60 60 60 60 60 65 65 75 75 75 75 80 80 80 80 80 80 80 80
hFE
Ic
minimax
(mA)
60/40/-
150 150 150 150 150 150 150 150 150 150 500 100 500 150 150 150 150 150 150 150 150 500 500 150 150 100 150 100 150 150 150 150 500 100 500 100 150 150 150 150 500 500 100 100 100 150 150 150 150 100 150 150
401120 401120 100/300 100/300 301401120 401120 401120 40/240 40/250 40/250 50/250 501250 100/230 100/300 100/300 30/150 40/240 120/240 40/250 40/250 40/120 100/300 401401120 85/401120 401120 401240 401240 401240 40/250 40/250 100/300 100/300 100/300 401120 40/140 30/130
301130 40/851401120 401120 401120 401120 401240 100/300 100/300 100/300
@
VCE(sat)
NPN
PNP
leila (mA)
max (V)
BFY52 BFY51 2N2218 BSY53 2N2219 BSY54 BFY50 2N2904 2N2218A 2N3110 BC440 BC140 BC460 2N4037 2N3053 2N2905 2N2219A 2N3109 BFY56 BC304 BC302 2N5323 2N5321 2N1613 2N1711 BFX39 BFY56A BFX38 2N2904A 2N31 08 BC303 BC301 BC441 BC141 BC461 2N4032 2N2905A 2N3107 2N2102 2N4036 2N5322 2N5320 BFX41 BFX40 2N4031 2N1893 2N3020 BSY55 BC300 2N4033 2N3019 BSY56
0.35 0.35 1.6 1.2 1.6 1.2 0.2 0.4 1 0.25 1 0.35 typ 1 0.3 1.4 0.4 1 0.25 0.3 0.65 0.5 1.2 0.8 1.5 1.5 0.5 0.25 0.5 0.4 1.4 0.65 0.5 1 0.35 typ 1 0.5 0.4 1.4 0.5 0.65 0.7 0.5 0.5 0.5 0.5 5 0.5 0.6 0.5 0.5 0.5 0.6
150115 150/15 500/50 500/50 500/50 500/50 150/15 150/15 500/50 150/15 1000/100 500/50 1000/100 150/15 150/15 150/15 500/50 150/15 150/15 150/15
150115 500/50 500/50 150/15 150/15 500/50 150/15 500/50 150/15 150/15 150/15 150/15 1000/100 500/50 1000/100
..~ .,I SGS·THOMSON fiIilO©Iill~m,rn©1rIill@Ii:!O©i§i
500/50 150/15 150/15 150/15 150/15 500/50 500/50 500/50 500/50 500/50 150/15 500/50 150/15 150/15 500/50 500/50 150/15
iT
min
ts toft·
(MHz)
(ns)
50 50 250 100 typ 250 100 typ 60 200 250 60 50 50 50 100 100 typ 200 300 70 40 100 typ 100 typ 50 50 60 70 100 60 100 200 100 typ 75 120 typ 50 50 50 100 200 100 typ 60 60 50 50 100 100 100 50 80 typ 100 typ 120 typ 100 100 typ 100 typ
160 typ 160 typ 140 typ 80 225 1000·
-
850· 110
-
80 225 1000· 800· -
800' -
350 800' 350 80 -
-
850'
-
350 80
-
30' 700' 1000' 800' 350 350 350
-
350
-
Ptot (mW) 800 800 800 800 800 800 800 600 800 800 1000 800 1000 700 800 600 800 800 800 850 850 1000 1000 800 800 800 800 800 600 800 850 800 1000 800 1000 800 600 800 1000 1000 1000 1000 800 800 800 800 800 800 800 800 800 800
Page 187 187 295 259 295 259 187 325 297 339 91 49 93 401 337 325 297 339 191 77
73 415 413 285 285 163 191 163 327 339 77
73 91 49 93 389 327 339 293 397 415 413 163 163 389 289 335 263 73 389 335 263
9
SELECTION GUIDE General Purpose in TO-18 TYPE
@
VCEO VCER· (V) 25 25 30 30 30 30 40 40 40 40 40 40 40 40 40 45 45 50· 50· 55 55 60 60 60 80 80
Ic
hFE minImax
(mA) 10 100 150 10 150 150 150 150 10 10 100 10 150 150 10 150 10 150 150 50 150 150 150 150 150 150
50/75/260 401120 901100/300 100/300
401120 401120 50150/150 75/260 100/300 100/300 100/300 150/300 100/300 100/600 40/120 100/300 50160/180 401120 100/300 100/300 40/100/300
NPN
@
PNP BCY72
BC377 2N2221 BFX48 2N2222 2N3302 2N2906 2N2221A BCY70 2N3250 BC378 2N3251 2N2907 2N2222A 2N4035 2N3504 BCY71 2N718A 2N956 BSX33 BFR18 2N2906A 2N2907A 2N3505 2N720A 2N3700
VCE(sat) max (V)
lellB
(mA)
0.5 0.7 1.6 0.3 1.6 0.6 1.6 1 0.5 0.5 0.7 0.5 1.6 1 0.3 1.6 0.5 1.5 1.5 0.3 0.25 1.6 1.6 1.6 1.2 0.5
50/5 500/50 500/50 50/5 500/50 500/50 500/50 500/50 50/5 50/5 500/50 50/5 500/50 500/50 5015 500/50 50/5 150/15 150/15 150/15 500/50 500/50 500/50 500/50 50/5 500/50
fT
min (MHz)
200 300 typ 250 400 250 200 250 250 250 300 typ 300 200 300 450 200 200 60 70 60 60 200 200 200 400 typ
.
ts toll (ns)
350 160· 150· 80 225 350 200
-
200 80 225 150· 100· -
-
800· 80 80 100· -
Ptot (mW)
Page
350 375 500 360 500 360 400 500 350 360 375 360 400 500 360 400 350 500 500 500 500 400 400 400 500 500
105 81 295 167 295 353 325 297 105 349 81 349 325 297 393 357 105 269 269 239 133 327 327 357 273 359
Ptot (mW)
Page
300 300 300 300 360 360 360 360 300 300 360 360 300 360 360 360 360 360 360 360 360 360
37 37 61 61 101 111 95 95 283 37 111 101 61 377 129 377 311 199 377 159 377 95
Low level, low noise transistors in TO-18 TYPE
@
VCEO VCER· (V) 20 20 20 25 32 32 40 40 45 45
110/800. 200/800. 240/500. 125/500. 120/630 120/460 110/450 200/100/500 110/450.
45 45 45 45 60 60 60 60 60 80 80 80 • hIe
10
hFE minImax
120/460 120/630 125/500. 250/500 130/100/300 100/500 150/300 250/500 70/230 100/300 110/250 @
1 KHz
Ic
(mA) 2 2 2 2 2 2 2 2 0.Q1 2 2 2 2 0.01 0.01 0.01 0.01 1 0.01 0.01 0.01 2
NPN
@
PNP
BC108 BC109 BC179 BC178 BCY58 BCY78 BC478 BC479 2N930 BC107 BCY79 BCY59 BC177 2N3964 BFR17 2N3962 2N2484 BFY76 2N3965 BFX37 2N3963 BC477
VCE(sat) max (V)
(mA)
0.6 0.6 0.25 0.25 0.35
100/5 100/5 10/0.5 10/0.5 10/0.25
O.B
100/2.5 10/0.5 10/0.5 10/0.5 100/5
0.25 0.25 1 0.6 0.8 0.7 0.25 0.25 1 0.25 0.35 0.35 0.25 0.4 0.25 0.25
Ic/lB
100/2.5 100/2.5 10/0.5 10/0.5 1/0.1 10/0.5
1/0.1 1/0.1 10/0.5 50/5 10/0.5 10/0.5
fT
min (MHz)
100 100 200 typ 200 typ 200 typ 180 typ 150 typ 30 100 180 typ 200 typ 200 typ 50 70 40 60 100 50 40 40 150 typ
NF (dB)
10 4 4 10 6 6 6 4 3 10 6 6 10 2 3 3 2 4 4 3.5 3 10
SELECTION GUIDE Transistors for fast and ultra-fast switches in TO-18 TYPE
@
VCEO VCER' (V)
Ie
hFE minImax
12 12 12 15 15 15 15 15 15 15 15 15 15 20 20
40/120 40/120 401120 30/30/120
20 20 30 30 40 50
30/120 40/120 30/120 60/150 40160/150
(mA)
10 30 30 10 10 100 10 10 30 10 10 10 10 10 30 30 30 150 100 100 100
30/120 30/120 40/120 20160 20/60 251301120 30/120 301120 401120
@
PNP
NPN
BSX28 BSX29 2N2894 2N2368 BSX19 2N3013 2N708 2N914 BSX26 2N2369 2N2369A BSX20 BSX93 BSX88A 2N3209 2N3014 BSX39 2N2845 2N4013 BSS26 2N4014
VCE(sat) max (V)
Ic/le
fT
(mA)
min (MHz)
0.25 0.2 0.2 0.25 0.6 0.5 0.4 0.7 0.5 0.25 0.2 0.6 0.2 0.39 0.2
30/3 30/3 100/10 10/1 100/10
400 400 400 400 400
300/30 10/1 200/20 300/30 10/1 10/1 100/10 10/1 100/10 30/3
350 300 300 350 500 500 450 400 350 400
0.35 0.28 0.4 0.2 0.95 0.52
100/10 100/10 150/15 100/10 1000/100 500/50
350 350 350 300 250 300
ts , toll (ns)
13 90 90 10 10 18 75' 20 18 13 13 13 13 20 90 18 18 40' 60' 60' 60'
Ptot (mW)
Page
360 360 360 360 360 360 360 360 360 360 360 360 360 360 360
227 231 321 303 219 331 267 275 223 305 307 219 255 251 321
360 360 360 500 360 360
333 243 315 381 203 385
Transistors for fast and ultra-fast switches in TO-39
.
TYPE
@
VCEO VCER (V)
hFE minImax
(mA)
30 40 50
60/150 60/150 60/150
100 100 100
Ie
NPN
2N3724 BSX32 2N3725
@
PNP
VCE(sat) max (V)
0.2 0.5 0.52
fT
(mA)
min (MHz)
ts , toll (ns)
Ptot (mW)
Page
100/10 500/50 500/50
300 300
60' 60' 60'
800 800 800
361 235 365
Ic/le
11
SELECTION GUIDE HIGH VOLTAGE transistors in TO-1S TYPE
@
VCEO VCER" (V)
hFE minImax
(mA)
150 180 180 180 180
40130150180/300 80/300
10 10 10 10 10
200 200 200 200
40/250 50140/250 35/150
30 10 30 30
Ic
NPN
@
PNP
BFW43 BC394 BC393 2N3930 BFX90 BSS75S BSS71S BSS72S BSS74S
VCE(sat) max (V)
Ielis (mA)
fT min (MHz)
0.5 0.3 0.3 0.25 0.25
10/1 10/1 10/1 10/1 10/1
60 50 50 40 160
0.4 0.5 0.5 0.5
30/3 5015 5015 5015
50 50 50 50
Is loll " (ns)
-
P tot (mW)
400 400 400
Page
-
400
155 87 87 373 181
-
400 500 500 500
213 207 209 211
P tot (mW)
Page
400
HIGH VOLTAGE transistors in TO-39 TYPE
@
VCEO VCER" (V)
hFE minImax
(mA)
150 150 160 180 180
30140125/80/300 80/300
30 10 30 10 10
200 250 300
30/150 25/25/-
10 30 30
Ic
NPN
@
PNP
2N3114 BFW44 BF257 2N3931 BFX91 2N5415S BF258 BF259
VCE(sat) max (V)
Ielis (mA)
fT min (MHz)
1 0.5 1 0.25 0.25
5015 10/1 30/6 10/1 10/1
40 60 90 typ 60 40
2.5 1 1
5015 30/6 30/6
15 90 typ 90 typ
Is loft " (ns)
-
800
-
1000 700 700
343 155 117 373 181
-
1000 1000 1000
417 117 117
700
-
HIGH VOLTAGE transistors in TO-126 TYPE
@
VCEO VCER" (V)
160 250 300
12
hFE minImax
301301301-
Ic (mA) 30 30 30
NPN
BF457 BF458 BF459
@
PNP
VCE(sat) max (V)
1 1 1
6i ':11 SGS·THOMSON iIIlO©IRI@~~~©1JIRI@i:IlO©®
IclIs (mA)
50/10 50/10 50/10
fT min (MHz)
Is loft" (ns)
Ptot (mW)
Page
90 typ 90 typ 90 typ
-
1250 1250 1250
121 121 121
Transistor for Radio frequency application MAX RATING
~
Ptot
TRANS. FREQ.
TYPE/POLARITY MAIN FUNCTION
ft (MHz)
VeEO (V)
Ie (rnA)
30
25
200
BFY90
Wide Band VHF/UHF Amplifier
1400
30
25
200
BFX89
Wide Band VHF/UHF Amplifier
1200
12
50
200
2N5179
VHF/UHF Amplifier
(mW)
NPN
PNP
@
Ie (rnA)
GAIN
NOISE FIGURE NF
~
Ie and f
(dB)
(rnA)
(MHz)
25
5.5
2
25
7
2
1400
5
3
1.5
PG @
f
Package Page
(dB)
(MHz)
800
8
800
TO-72
500
7
800
TO-72
177
200
21
200
TO-72
411 279
177
15
50
200
2N918
High frequency oscillator and amplifier
900
4
5
1
60
21
200
TO-72
",CII
15
50
200
2N3600
High frequency oscillator and amplifier
850
5
5
1
60
21
200
TO-72
171
cro-t
25
50
225
BFR99
Wide band VHF/UHF amplifier
2000
10
3.5
3
800
10
800
TO-72
143
~~ ~O :!'!Z
25
50
225
BFR99A
Wide band VHF/UHF amplifier
2300
10
3.5
3
800
10
800
TO-72
145
25
150
700
BFW16A
CATV-MATV Amplifier
1200
150
6
30
200
800
TO-39
151
25
150
700
BFW17A
CATV-MATV Amplifier
1100
150
-
-
-
16
200
TO-39
151
30
200
800
BFR36
CATV High Gain Transistor
1400
70
4.5
70
200
16
200
TO-39
137
20
400
1000
2N5109
CATV High Gain Transistor
-
-
-
-
-
-
-
TO-39
407
20
-
1000
2N3137
R.F. Amplifier
750
50
4
30
200
7
250
TO-39
345
20
500
3500
2N4427
VHF Oscillator Power Amplifier
500
50
-
-
-
10
175
TO-39
403
50
-
-
-
10
400
TO-39
369
i~
§
•
!e
30
500
5000
2N3866
VHF Oscillator Power Amplifier
500
6.5
en
m r-
m
o-t
(5 Z G)
C
w
C m
CROSS REFERENCE
INDUSTRY STANDARD
B1-12 BC100 BC107 BC108 BC109 BC110 BC113 BC114 BC115 BC116 BC117 BC118 BC119 BC120 BC125 BC126 BC129 BC130 BC131 BC132 BC134 BC135 BC136 BC137 BC138 BC139 BC140 BC141 BC142 BC143
SGS-THOMSON
2N4427 BF259 BC107 BC108 BC109 BC394 BFY76 BFR17 BC140 BC160 BC394 BC107 BC119 BC119 BC377 BC298 BC107 BC108 BC108 BC109 BC107 BC107 BC140 BC139 BC140 BC139 BC140 BC141 BC142 BC143
BC144 BC145 BC147 BC148 BC149 BC150 BC151 BC152 BC153 BC154 BC157 BC158 BC159 BC160 BC161 BC167 BC168 BC169 BC170 BC171 BC172 BC173 BC174
14
SGS-THOMSON NEAREST
BC140 BC394 BC107 BC108 BC109 BC108 BC108 BC108 BC177 BC177 BC177 BC178 BC179 BC160 BC161 BC107 BC108 BC109 BC108 BC107 BC108 BC109 BFY76
PAGE
403 117 37 37 37 87 199 129 49 57 87 37 43 43 81 69 37 37 37 37 37 37 49 45 49 45 49 49 53 55 49 87 37 37 37 37 37 37 61 61 61 61 61 57 57 37 37 37 37 37 37 37 199
INDUSTRY STANDARD
BC177 BC181 BC182 BC183 BC184 BC185 BC186 BC187 BC190 BC192 BC200 BC204 BC205 BC206 BC207 BC208 BC209 BC210 BC211 BC212 BC213 BC214 BC215 BC216 BC218 BC220 BC221 BC222 BC223 BC224 BC225 BC226 BC231 BC232 BC236 BC237 BC238 BC239 BC250 BC251 BC252 BC253 BC254 BC255 BC256 BC257 BC258 BC259 BC260 BC261 BC262 BC263 BC266
SGS-THOMSON
SGS-THOMSON NEAREST
BC177 BC177 BC107 BC107 BC107 BC301 BC177 BC178 BC107 BC298 BC179 BC177 BC178 BC179 BC107 BC108 BC109 BC377 BC141 BC177 BC178 BC179 BC297 BC298 BC108 BC107 BC298 BC378 BC377 BC478 BC478 BC302 BC297 BC377 BC394 BC107 BC108 BC109 BC179 BC177 BC178 BC179 BC394 BC394 BC477 BC177 BC178 BC178 BC179 BC177 BC178 BC178 BC477
PAGE
61 61 37 37 37 73 61 61 37 69 61 61 61 61 37 37 37 81 49 61 61 61 69 69 37 37 69 81 81 95 95 73 69 81 87 37 37 37 61 61 61 61 87 87 95 61 61 61 61 61 61 61 95
CROSS REFERENCE
INDUSTRY STANDARD
BC267 BC268 BC269 BC270 BC271 BC272 BC280 BC281 BC282 BC283 BC284 BC285 BC286 BC287 BC294 BC295 BC297 BC298 BC300 BC301 BC302 BC303 BC304 BC307 BC308 BC309 BC310 BC312 BC313 BC315 BC317 BC318 BC319 BC320 BC321
SGS-THOMSON
SGS-THOMSON NEAREST
BC107 BC108 BC109 BC109 BC378 BC377 BFY76 BC178 BC377 BC297 BC378 BC394 BC286 BC287 BC160 BC108 BC297 BC298 BC300 BC301 BC302 BC303 BC304 BC177 BC178 BC179 BC141 BF258 BC303 BC177
PAGE
INDUSTRY STANDARD
37 37 37 37 81 81 199 61 81 69 81 87 65 67 57 37 69 69 73 73 73 77 77 61 61 61 41 117 77 61
BC344 BC345 BC347 BC348 BC349 BC350 BC351 BC352 BC354 BC355 BC357 BC358 BC360 BC361 BC368 BC369 BC370 BC377 BC378 BC381 BC382 BC383 BC384 BC385 BC386 BC387 BC388 BC393 BC394 BC395
37 37 37 61 61
BC322 BC324 BC327 BC328 BC329 BC330 BC331 BC332 BC333 BC334 BC335 BC336 BC337 BC338 BC340
BC107 BC108 BC109 BC177 BC178 BC179 BC301 BC297 BC298 BFY76 BC107 BFY76 BC107 BC108 BC178 BC109 BC178 BC377 BC378 BC140
61 73 69 69 199 37 199 37 37 61 37 61 81 81 49
BC396 BC400 BC407 BC408 BC409 BC417 BC418 BC419 BC420 BC429 BC430 BC431 BC432 BC437 BC438 BC439 BC440 BC441 BC446 BC448
BC341 BC342 BC343
BC141 BC141 BC161
49 49 57
BC451 BC452 BC453
SGS-THOMSON
SGS-THOMSON NEAREST
BC300 BC303 BC107 BC108 BC109 BC177 BC178 BC179 BC478 BC478 BC479 BC109 BC160 BC161 BC440 BC460 BC298 BC377 BC378 BC177 BC107 BC108 BC108 BC107 BC109 BC377 BC297 BC393 BC394 BC141 BC161 BC477 BC107 BC108 BC109 BC177 BC178 BC179 BC393 BC440 BC460 BC301 BC303 BC107 BC108 BC109 BC440 BC441 BC477 BC477 BC107 BC108 BC109
PAGE
73 77 37 37 37 61 61 61 95 95 95 37 57 57 91 93 69 81 81 61 37 37 37 37 37 81 69 83 87 49 57 95 37 37 37 61 61 61 83 91 93 73 77 37 37 37 91 91 95 95 37 37 37
15
CROSS REFERENCE
INDUSTRY STANDARD
BC454 BC455 BC456 BC460 BC461 BC467 BC468 BC469 BC477 BC478 BC479 BC512 BC513 BC514 BC520 BC521 BC522 BC523 BC524 BC525 BC526 BC529 BC530 BC531 BC532 BC533 BC535 BC546 BC547 BC548 BC549 BC550 BC556 BC557 BC558 BC559 BC560 BC582 BC583 BC584 BC585 BC586 BC635 BC636 BC714 BC727 BC728 BC737 BC738 BCW10 BCW11 BCW12 BCW13
16
SGS-THOMSON
SGS-THOMSON NEAREST
BC177 BC178 BC179 BC460 BC461 BC107 BC108 BC109 BC477 BC478 BC479
PAGE
61 61 61 93 93 37 37 37 95 95
BC477 BC297 BC393 BC393 BC394 BC394 2N3700 BFY76 BC107 BC108
95 61 61 61 199 129 129 199 37 95 95 69 83 83 87 87 359 199 37 37
BC109 BC107 BC477 BC478 BC478 BC479 BC478 BC107 BC108 BC109 BFY76 BC177 BC377 BC297 BC177 BC297 BC298 BC377 BC378 BCY58 BCY78 BCY59 BCY79
37 37 95 95 95 95 95 37 37 37 199 61 81 69 61 69 69 81 81 101 111 101 111
BC177 BC178 BC179 BFY76 BFR17 BFR17 BFY76 BC107 BC478
INDUSTRY STANDARD
BCW14 BCW15 BCW16 BCW17 BCW20 BCW21 BCW22 BCW23 BCW34 BCW35 BCW36 BCW37 BCW44 BCW45 BCW50 BCW62 BCW63 BCW64 BCW73 BCW74 BCW75 BCW76 BCW77 BCW78 BCW79 BCW80 BCW82 BCW83 BCW84 BCW85 BCW86 BCW87 BCW88 BCW90 BCW91 BCW92 BCW93 BCW94 BCW95 BCW96 BCW97 BCW98 BCW99 BCX25 BCX26 BCX40 BCX45 BCX46 BCX47 BCX48 BCX58 BCX59 BCX60
SGS-THOMSON
SGS-THOMSON NEAREST
PAGE
2N2222A 2N2907A 2N1613 BFX41 BC394 2N3962 BCY79 BCY79 2N2221 2N2221A
101 111 101 111 101 111 101 111 297 327 297 327 285 163 87 377 111 111 295 297
2N2906 2N2906A 2N2219 2N2219A 2N2905 2N2905A BFY76 BCY59 BCY59 BFX37
325 327 295 297 325 327 199 101 101 "159
BC177 BCY59 BCY79 BC377 BSX33 BC297 2N2907A 2N2222A BFR18 2N2907 2N2907A BCY59 BCY79 BCY59 BCY79 BC441 2N2221A 2N2906A 2N2222A 2N2907A
61 101 111 81 239 69 327 297 133 325 327 101 111 101 111 91 297 327 297 327 101 101 93
BCY59 BCY79 BCY59 BCY79 BCY58 BCY78 BCY59 BCY79 2N2222A 2N2907A
BCY58 BCY59 BC461
CROSS REFERENCE
INDUSTRY STANDARD
BCX73 BCX74 BCX75 BCX76 BCX78 BCX79 BCY56 BCY58 BCY59 BCY66 BCY67 BCY69 BCY70 BCY71 BCY72 BCY78 BCY79 BF120 BF137 BF156 BF157 BF174 BF177 BF178 BF179 BF248 BF249 BF250 BF257 BF258 BF259 BF291 BF292 BF293 BF294 BF297 BF298 BF299 BF305 BF321 BF322 BF323 BF336 BF337 BF338 BF355 BF390 BF391 BF456 BF457 BF458 BF459 BFR10
SGS·THOMSON
SGS· THOMSON NEAREST
2N2222 2N2222A 2N2907 2N2907A BCY78 BCY79 BCY59 BCY58 BCY59 BCY59 BCY79 BCY58 BCY70 BCY71 BCY72 BCY78 BCY79 BC394 BF257 BF257 BF257 BF258 BF257 BF258 BF259 2N2222 2N2907 2N2222 BF257 BF258 BF259 BC107 BF258 BC107 BF257 BF257 BF258 BF259 BF258 BC108 2N2218 2N2904 BF257 BF258 BF259 BF259 BF259 BC394 BF457 BF457 BF458 BF459 2N2218
PAGE
295 297 325 327 111 111 101 101 101 101
INDUSTRY STANDARD
SGS·THOMSON
SGS· THOMSON NEAREST
BFR18 2N3700 BC440 BF257 BF258 BF259 2N1893 2N3020 BC394
295 101 199 129 133 335 289 289 397 401 137 133 359 91 117 117 117 289 335 87
BFT62 BFT69 BFT79 BFT80 BFT81 BFV56 BFV56A BFV57A BFV64 BFV64A
BSX33 BC178 BFW44 BFX91 BFX41 BFX40 BFX39 BFX38 BC394 BFY90 2N2906 BSX33 2N956 2N5321 BC394 2N4033 2N4030 2N4030 2N4031 2N4031 2N4033 2N4032 BSS26 BSS26 BSS26 2N2907 2N2907A
369 403 143 239 61 155 181 163 163 163 163 87 177 325 239 269 413 87 389 389 389 389 389 389 389 203 203 203 325 327
BFV64B BFV65 BFV66
2N2907 BSX26 2N2221A
325 223 297
BFR11 BFR12 BFR16 BFR17 BFR18 BFR20 BFR21 BFR22 BFR23 BFR24 BFR36 BFR39 BFR40 BFR56 BFR57
111 101 105 105 105 111 111 87 117 117 117 117 117 117 117 295 325 295 117 117 117 37 117 37 117 117 117 117 117 37
BFS95 BFS99 BFT17 BFT22 BFT30 BFT31 BFT41 BFT57 BFT60 BFT61
295 325 117 117 117 117 117 87 121 121 121 121 295
2N2221 BCY59 BFY76
PAGE
BFR17 BFR18 2N3019 2N1893 2N1893 2N4036 2N4037 BFR36
BFR58 BFR59 BFR77 BFR78 BFR86 BFR97 BFR98 BFR99A BFS61 BFS69 BFS90 BFS91 BFS92 BFS93 BFS94
BFR97 BFR98 BFR99A
17
CROSS REFERENCE
INDUSTRY STANDARD
BFV66A BFV68 BFV68A BFV90A BFV90B BFV99 BFW16A BFW17A BFW20 BFW21 BFW22 BFW24 BFW25 BFW26 BFW29 BFW31 BFW32 BFW33 BFW36 BFW38 BFW43 BFW44 BFW45 BFW63 BFW63A BFW71 BFW73 BFW74 BFW75 BFW76 BFW77 BFW78 BFX12 BFX13 BFX23 BFX29 BFX35 BFX36 BFX37 BFX38 BFX39 BFX40 BFX41 BFX43 BFX44 BFX48 BFX50 BFX51 BFX55 BFX59 BFX68 BFX68A BFX69
18
SGS·THOMSON
SGS·THOMSON NEAREST
2N2222A 2N2484 2N2484 2N2222 2N2221 2N2221A
PAGE
95 339 339 339 295
BFX69A BFX73 BFX74 BFX74A BFX84 BFX85 BFX86 BFX87 BFX88 BFX89 BFX90 BFX91 BFX93 BFX94 BFX94A
BF257 2N2222 2N2222A BFW16A BFW16A BFW17A BFW17A BFW17A
325 295 263 117 117 155 155 117 295 297 151 151 151 151 151
BFX95 BFX95A BFX96 BFX96A BFX97 BFX97A BFX98 BFY25 BFY26 BFY33 BFY34 BFY40 BFY41 BFY43 BFY44
BFW16A BFW17A BFX48 BFX48 BSX32
151 151 167 167 235
2N2904A 2N2907 2N2907A
327 325 327 159 163 163 163 163 305 307 167 297 297 137 177 285 285 285
BFY45 BFY46 BFY50 BFY51 BFY52 BFY53 BFY55 BFY56 BFY56A BFY56B
BFW16A BFW17A BC477 BFX37 BC478 2N3108 2N3110 2N3109 2N2219 2N2905 2N2219 BSY56 BF257 BF257 BFW43 BFW44
BFX37 BFX38 BFX39 BFX40 BFX41 2N2369 2N2369A BFX48 2N2222A 2N2221A BFR36 BFX89 2N1711 2N1711 2N1613
297 311 311 295 295 297 151 151 95 159
INDUSTRY STANDARD
BFY57 BFY64 BFY65 BFY67 BFY68 BFY70 BFY72 BFY76 BFY77 BFY88 BFY90 BSS11 BSS12
SGS·THOMSON
SGS· THOMSON NEAREST
2N1613 2N918 2N2904 BFX39 2N1893 2N1893 2N1711 2N2905 2N2905 BFX89 BFX90 BFX91 2N930 2N2221 2N2221A 2N2222 2N2222A 2N2218 2N2218A 2N2219 2N2219A BF257 2N2219A 2N2222A BFY56 2N1613 2N1711 BF257 BF257 BFY56A BF257 2N1711 BFY50 BFY51 BFY52 2N1613 2N1613 BFY56 BFY56A BFY56A BF257 BFY64 BF257 2N1613 2N1711 2N2218A 2N2218 BFY76 2N2484 BFR36 BFY90 BSX20 BSX28
PAGE
285 279 325 163 289 289 285 325 325 177 181 181 283 295 297 295 297 295 297 295 297 117 297 297 191 285 285 117 117 191 117 285 187 187 187 285 285 191 191 191 117 195 117 285 285 297 195 199 311 137 177 219 227
CROSS REFERENCE
INDUSTRY STANDARD
BSS15 BSS16 BSS17 BSS18 BSS23 BSS26 BSS27 BSS28 BSS29 BSS30 BSS31 BSS40 BSS41 BSS59 BSS68 BSS71S BSS72S BSS74S BSS75S BSV15 BSV16 BSV17 BSV21 BSV23 BSV24 BSV25 BSV26 BSV27 BSV33 BSV68 BSV69 BSV77 BSV82 BSV83 BSV84 BSV85 BSV89 BSV90 BSV91 BSV92 BSV95 BSW19 BSW19A BSW20 BSW20A BSW21 BSW21A BSW22 BSW22A BSW23 BSW24 BSW25 BSW26
SGS-THOMSON
SGS-THOMSON NEAREST
2N5320 2N5321 2N5322 2N5323 BSS26
PAGE
BSX32 2N3725 2N5322 2N5323 2N5320
413 413 415 415 203 203 365 235 235 289 335 203 203 359 83 207 209 211 213 215 215 215 321 227 227 219 219 219 231 155 235 365 415 415 413
2N5321 BSX19 BSX20 2N2369 BSX26 2N3725 2N2906 2N2907 2N2906 2N2907 BCY78 BCY79 BCY78 BCY79 2N2904 2N2904A BSX29 BSS26
413 219 219 305 203 365 325 325 325 325 111 111 111 111 325 327 231 203
BSS26 2N3725 BSX32 BSX32 2N1893 2N3019 BSS26 BSS26 2N3700 BC393 BSS71S BSS72S BSS74S BSS75S BSV15 BSV16 BSV16 2N2894 BSX28 BSX28 BSX19 BSX19 BSX20 BSX29 BFW43
INDUSTRY STANDARD
BSW27 BSW28 BSW29 BSW37 BSW38 BSW41 BSW42 BSW42A BSW43A BSW44 BSW44A BSW45 BSW45A BSW49 BSW51 BSW52 BSW53 BSW54 BSW61 BSW62 BSW63 BSW64 BSW72 BSW73 BSW74 BSW75 BSW82 BSW83 BSW84 BSW85 BSX19 BSX20 BSX21 BSX22 BSX23 BSX24 BSX25 BSX26 BSX28 BSX29 BSX30 BSX33 BSX38A BSX38B BSX39 BSX45 BSX46 BSX47 BSX48 BSX49 BSX51 BSX52 BSX53
SGS-THOMSON
SGS-THOMSON NEAREST
2N3725 BSX32 BSX32 2N2894 BSX19 2N2221A BCY58 BCY59 BCY59 BCY78 BCY79 BCY78 BCY79 BSX32 2N2218 2N2219 2N2218A 2N2219A 2N2221 2N2222 2N2221A 2N2222A 2N2906 2N2907 2N2906A 2N2907A 2N2221 2N2222 2N2221 2N2222A BSX19 BSX20 BC394 2N5321 2N5320 2N2221 2N2222 BSX26 BSX28 BSX29 BSX32 BSX33 BCY58 BCY59 BSX39 BSX45 BSX46 BFY56 BSS26 BSS26 BCY58 BCY59 BCY58
PAGE
365 235 235 321 219 297 101 101 101 111 . 111 111 111 235 295 295 297 297 295 295 297 297 325 325 327 327 295 295 295 297 219 219 87 413 413 295 295 223 227 231 235 239 101 101 243 247 247 191 203 203 101 101 101
19
CROSS REFERENCE
INDUSTRY STANDARD
BSX54 BSX59 BSX60 BSX61 BSX76 BSX77 BSX78 BSX87 BSX87A BSX88 BSX88A BSX89 BSX90 BSX91 BSX92 BSX93 BSX95 BSX96 BSX97 BSY10 BSY11 BSY17 BSY18 BSY19 BSY20 BSY21 BSY22 BSY23 BSY34 BSY38 BSY40 BSY41 BSY44 BSY45 BSY46 BSY53 BSY54 BSY55 BSY56 BSY58 BSY62A BSY62B BSY63 BSY70 BSY71 BSY72 BSY73 BSY74 BSY78 BSY83 BSY84 BSY85 BSY86
20
SGS-THOMSON
SGS-THOMSON PAGE NEAREST
BCY59 BSX32 2N3725 2N3725 BSX20 2N2369A BSX20 BSX26 BSX26 BSX39 BSX88A BSX19 BSX20 2N2369A 2N2369 BSX93 2N1613 2N1711 2N2221 2N2218A 2N2219 BSX19 BSX20 BSX26 BSX20 BSX26 BCY59 BSX19 BSX32 BSX19 BSX29 BSX29 2N1613 2N1893 2N1613 BSY53 BSY54 BSY55 BSY56 BSX32 BSX19 BSX20 BSX93 BSX39 2N1711 BCY58 BCY58 BCY59 2N2222 BFY56A 2N1711 BSX45 BSX46
INDUSTRY STANDARD
SGS-THOMSON
101 235 365 365 219 307 219 223 223 243 251 219 219 307 305 255 285 285 295 297 295 219 219 223 219 223 101 219 235 219
BSY87 BSY88 BSY89 BSY95 BSY95A MM2193A MM3019 MM3020 MM3053 MM3905 MM3906 S01300 2N656 2N657 2N696 2N697 2N698 2N706 2N706A 2N707 2N708 2N708 2N718A 2N718A 2N720A 2N720A 2N721 2N722 2N735 2N736 2N743 2N744 2N753
231 231 285 289 285 259 259 263 263 235 219 219 255 243 285 101 101 101 295 191 285 247 247
2N754 2N760A 2N780 2N834 2N869 2N870 2N871 2N910 2N911 2N912 2N914 2N918 2N929 2N930 2N956 2N978 2N995 2N1132 2N1420 2N1507 2N1572 2N1573 2N1574
SGS-THOMSON NEAREST
BSY56 2N3107 BCY58 BSX19 BSX20 2N2218A 2N3019 2N3020 2N3053 2N3250 2N3251 BFY90 BSX46 BC300 BSY53 2N1613 2N1893 BSX26 BSX19 BSX39
2N2906 2N2906A 2N2484 BFR18 BSX19 BSX20 2N2369A 2N1893 BFY76 2N930 BSX20 BSX29 BSX33 BFR18 BFR18 BSX33 BFR18 2N914 2N918 BFY76
2N930 2N956 2N2906 BSX29 2N2904 2N2219 2N2219 2N1893 2N1893 2N3020
PAGE
263 339 101 219 219 297 335 335 337 349 349 177 247 73 259 285 289 223 219 243 267 269 273 325 327 311 133 219 219 307 289 199 283 219 231 239 133 133 239 133 275 279 199 283 269 325 231 325 295 295 289 289 335
CROSS REFERENCE
INDUSTRY STANDARD
2N1613 2N1711 2N1890 2N1893 2N1983 2N1984 2N1985 2N1986 2N1987 2N1990 2N1991 2N2049 2N2102 2N2193 2N2194A 2N2195 2N2217 2N2218 2N2218A 2N2219 2N2219A 2N2221 2N2221A 2N2222 2N2222A 2N2297 2N2368 2N2369 2N2369A 2N2405 2N2410 2N2412 2N2477 2N2483 2N2484 2N2511 2N2586 2N2692 2N2693 2N2694 2N2711 2N2712 2N2714 2N2845 2N2848 2N2857 2N2864 2N2868 2N2894 2N2904 2N2904A 2N2905 2N2905A
SG8-THOMSON
SGS·THOMSON NEAREST
2N1613 2N1711 BSY55 2N1893 2N2219 2N2218 2N1613 2N2218 2N1613 2N1893 2N2904 BFY52 2N2102 BSX45 2N2218A 2N2218 2N2218 2N2218 2N2218A 2N2219 2N2219A 2N2221 2N2221A 2N2222 2N2222A BFY56 2N2368 2N2369 2N2369A BC300 BSX32 BSX29 2N3725 BFY76 2N2484 BFY76 BFR17 BCY59 BCY59 BCY59 BCY58 BCY58 BCY59 2N2845 BSX32 2N2857 BFY50 BSY53 2N2894 2N2904 2N2904A 2N2905 2N2905A
------------------------
PAGE
INDUSTRY STANDARD
285 285 263 289 295 295 285 295 285 289 325 187 293 247 297 295 295 295 297 295 297 295 297 295 297 263 303 305 307 73
2N2906 2N2906A 2N2907 2N2907A 2N2927 2N2959 2N3009 2N3011 2N3012 2N3013 2N3014 2N3015 2N3019 2N3020 2N3036 2N3053 2N3070 2N3073 2N3107 2N3108 2N3109 2N3110 2N3114 2N3117 2N3121 2N3137 2N3209 2N3250 2N3251 2N3252
235 231 365 199 311 199 129 101 101 101 101 101 101 315 235 319 187 259 321 325 327 325 327
2N3253 2N3261 2N3299 2N3300 2N3301 2N3302 2N3309 2N3478 2N3485 2N3486 2N3502 2N3503 2N3504 2N3505 2N3563 2N3565 2N3566 2N3567 2N3568 2N3569 2N3572 2N3600 2N3638
SGS·THOMSON
SGS·THOMSON NEAREST
2N2906 2N2906A 2N2907 2N2907A 2N2904A 2N2219A 2N3013 BSX28 2N2894 2N3013 2N3014 BSX32 2N3019 2N3020 2N1893 2N3053 2N2905A 2N2906A 2N3107 2N3108 2N3109 2N3110 2N3114 BFR17 2N2906A 2N3137 2N3209 2N3250 2N3251 2N3725 BSX32 BSX20 2N2218 2N2219 2N3301 2N3302 2N2218 2N5179 2N2906 2N2907 2N3502 2N3503 2N3504 2N3505 2N918 BFY76 2N1711 2N1613 BFY56A BFY56 BFY90 2N3600 2N2905
PAGE
325 327 325 327 327 297 331 227 321 331 333 235 335 335 289 337 327 327 339 339 339 339 343 129 327 345 321 349 349 365 235 219 295 295 353 353 295 411 325 325 357 357 357 357 279 199 285 285 191 191 177 171 325
~~~~@~gm~~ 21
CROSS REFERENCE
INDUSTRY STANDARD
2N3641 2N3642 2N3643 2N3644 2N3645 2N3646 2N3662 2N3663 2N3700 2N3712 2N3725 2N3776 2N3777 2N3793 2N3794 2N3825 2N3828 2N3866 2N3903 2N3904 2N3905 2N3906 2N3930 2N3931 2N3962 2N3963 2N3964 2N3965 2N4013 2N4014 2N4030 2N4031 2N4032 2N4033 2N4035 2N4036 2N4037 2N4046 2N4047 2N4058 2N4059 2N4060 2N4061 2N4062 2N4121 2N4248 2N4249 2N4250 2N4258 2N4264 2N4265 2N4286 2N4287
22
SGS·THOMSON
SGS· THOMSON NEAREST
2N2218 2N2218A 2N2219 2N2905 2N2905A BSX26 2N918 BFX89 2N3700 BF257 2N3725 2N5321 2N5322 BC107 BC108 BC109 BC107 2N3866 2N2222 2N2221 2N2906 2N2907 2N3930 2N3931 2N3962 2N3963 2N3964 2N3965 2N4013 2N4014 2N4030 2N4031 2N4032 2N4033 2N4035 2N4036 2N4037 BSX32 2N3725 BC177 BC178 BC177 BC177 BC178 BCY70 BC177 BC177 BC178 BC179 BC108 BC107 BC107 BC107
PAGE
295 297 295 325 327 223 279 177 359 117 365 413 415 37 37 37 37 369 295 295 325 325 373 373 377 377 377 377 381 385 389 389 389 389 393 397 401 235 365 61 61 61 61 61 105 61 61 61 61 37 37 37 37
INDUSTRY STANDARD
2N4288 2N4289 2N4290 2N4291 2N4292 2N4293 2N4358 2N4359 2N4402 2N4403 2N4427 2N4875 2N4917 2N4927 2N5053 2N5054 2N5086 2N5087 2N5088 2N5089 2N5109 2N5128 2N5132 2N5135 2N5136 2N5138 2N5172 2N5179 2N5180 2N5209 2N5210 2N5219 2N5320 2N5321 2N5322 2N5323 2N5415S 2N5421 2N5550 2N5551 2N5687 2N6304 2N6305 2SA561 2SA565 2SA578 2SA673 2SA677 2SC80 2SC99 2SC100 2SC108 2SC120
SGS·THOMSON
SGS·THOMSON NEAREST
BC178 BC177 BC179 BC179 BC109 BC109 2N5415S BFX37 2N2906 2N2907 2N4427 BFW16A 2N3251 BF258 BFX89 BFY90 BCY79 BCY79 BCY59 BCY59 2N5109 2N2219 BC109 BCY58 BC119 BCY79 BCY58 2N5179 2N5179 BC107 BC107 BC108 2N5320 2N5321 2N5322 2N5323 2N5415S 2N4427 BC394 BC394 2N4427 BFY90 BFX89 BC297 BC297 BC177 BC297 BC298 BC108 BC109 2N1613 2N1711 2N1711
PAGE
61 61 61 61 37 37 417 159 325 325 403 151 349 117 177 177 111 111 101 101 407 295 37 101 43 111 101 411 411 37 37 37 413 413 415 415 417 403 87 87 415 177 177 69 69 61 69 69 37 37 285 285 285
CROSS REFERENCE
INDUSTRY STANDARD
SGS·THOMSON
SGS·THOMSON NEAREST
PAGE
2SC122 2SC150 2SC155 2SC156 2SC172 2SC188 2SC189 2SC196 2SC197 2SC199 2SC204 2SC206 2SC228 2SC233 2SC237 2SC266 2SC273 2SC281 2SC282 2SC283 2SC284 2SC319 2SC320 2SC368 2SC468 2SC540 2SC588 2SC605 2SC821 2SC988
2N2369 BFY50 BC108 BC109 BSX20 2N2218 2N2218A BSX20 BFY51 BSY54 BSX19 BC107 BSY53 BSY54 2N2369 BC108 2N1711 BC107 BFY50 2N1613 2N1711 2N4427 BC107 BC107 BSX19 BC109 2N3107 2N3108 2N4427 BFY90
305 187 37 37 219 295 297 219 187 259 219 37 259 259 305 37 285 37 187 285 285 403 37 37 219 37 339 339 403 177
2SC1044 2SC1254 2SC1260 2SC1275 2SC1807 40280 40894 40895 40896 40897
2N2857 2N2857 BFY90 BFY90 BFY90 2N4427 2N5179 BFX89 BFX89 2N5179
319 319 177 177 177 403 411 177 177 411
INDUSTRY STANDARD
SGS· THOMSON
SGS· THOMSON NEAREST
PAGE
23
HANDLING PRECAUTION PCB Mounting
Soldering
Frequently lead forming is necessary to allow a suitable fit of a transistor on to a PCB. With or without lead forming these points should be observed.
The specified temperatures for soldering transistor leads are 260°C for 10 seconds or 350°C for 3 seconds. Temperature and times in excess of these could adversely effect the transistors.
I)
Space the lead holes on the PCB to match the foot pri nt of the transistor
II) Avoid lateral stress or excessive pressure on the ends of the transistor leads. III) Use a spacer between the transistor and PCB IV) When lead forming prior to mounting a transistor - make the bend at least 3 mm from the transistor body - clamp the leads near the transistor body before forming the lead - maintain a space between the jig and transistor body - follow all the precautions specified in the various standard relating to the transistors V) When mounting a transistor onto a heat sink: - use the correct accessories - drill the holes on the heat sink as specified and properly deburr them. Avoid "pitting" the heat sink. - use a recommended silicon grease - use the correct tightening torque for the mounting screws or use the correct clips for mounting the transistors - never use pneumatic screwdrivers to mount transistors VI) Avoid repeated bending of transistor leads when lead forming.
24
Use a non corrosive flux Be sure to - solder quickly - avoid appling mechanical stress to the transistor after soldering it, i.e. do not adjust its position - mount the transistor on its heatsink before soldering the assemply to a PCB - do not solder the heat radiating metal case, of a metal cased transistor, to a PCB - use a low leakage soldering iron properly grounded. Cleaning the PCB
After soldering clean the PCB to remove the flux. - do not rub identifying marks with a brush or fingers when using a cleaning agent. take care using ultrasonic cleaning baths. Under certain circumstances the service life of airtight sealed transistors may be shortened. the recommended cleaning method is to adapt steam or jetstream cleaning techniques, where the transistors are mounted on PCB's. Static Electricity
Maximum parameter ratings for the transistors should in no case be exceeded. However during handling it is possible that excessive static voltages may be applied directly or indirectly while handling them. High frequency transistors are particularly prone to damages from static charges. Proper circuit protection procedures should be observed.
QUALITY QUALITY ASSURANCE The average outgoing quality level (ADO) is ultimated with the results of outgoing inspection which carries out a sampling inspection on each lot according to devices specification. Sampling plan of outgoing inspection (according to MILSTD105D standard).
LEVEL
AQL
Visual and mechanical inspection
II
0.04
Cumulative static electrical parameter (inoperative + out of specification limits)
II
0.065
54
0.25
SUBGROUP
PARAMETERS
A1 A2+A3
AC Parameters
A4
Estimator of average outgoing quality level * (see sure 5) AOQ
=
d=c+1 L Nd * d d= 1 AOOE d=c L d=O
Nd * n
Total defective units in samples with d:;::; c + 1 Total inspected units in samples of accepted lots where:
n
c d Nd
sample size acceptance criterion number of defects in sample number of lots with d defects on sample n
The value is expressed in: PPM = Parts per million (10- 6) (The sums are applied to all inspected lots: 1st, 2nd inspection)
25
QUALITY RELIABILITY ASSURANCE Continuous reliability auditing with accelerated tests are performed on small signal transistor production in 2 stages: • internal real time control (RTC) A great emphasis is given to these process oriented reliability tests performed on a weekly basis. High accelerated conditions are used as often as phisically possible: - detection of any slight process shift
- evaluation of the impact of process control continual improvement • group band c - long time life tests they are performed on a periodic basic (usually every 3 months) to complete the information given by RTC tests and to define the long term reliability of the product and failure rate evalutation. The results are cumulated each year - they are available on request.
Reliability Test Conditions Test HTRB
Conditions VCC = 80% VCES maximum rating Ta = 150°C Short term = 168 hours Long term = 1000 hours
THERMAL CYCLES
- 65°C to + 150°C short term = 100 cycles long term = 1000 cycles
OPERATING LIFE
Tj
= Tj
PO
=
26
Ta
=
cf"CC
Tj max. -
=
T case
Rth 1000 hours
Tj max.
long term
=
1000 hours
Standard MILSTD 750C method 1032
MILSTD750C method 1051
max.
long term HIGH TEMPERATURE STORAGE
Typical test Circuit
I~CC
QUALITY
Note: SPC methods are used for Process Control Assurance and continual quality improvement towards Zero defect target. Hihg values of process control capability (CPK) at each significant step assure reliable results at the end of the process TYPICAL WAFER FABRICATION FLOW CHART
LOT FORMING
Initialization of "Lot Tracking" procedure (total traceability throughout the process)
I -
OXIDATION r-I
1
'"="" diffusion cycles
~~~~~~-.
OXIDE INSPECTION
MASKING
rVISUALCHEC~
INSPECTION
ETCHING
1-------.
INSPECTION
DIFFUSION DOPING BY DIFFUSION OR BY IMPLANT ur-~~~~~-STRUCTUREPARAMETER-CHECK
1 - - - - - - - - . INSPECTION
Ir-~~~~~~--I r-I------.
OXIDATION, GLASS DEPOSITION
•• OXIDE and GLASS INSPECTION
MASKING
INSPECTION
ETCHING
9~------VISUAL and ELECTRICAL CHECK Ir-~-------I. INSPECTION METALIZATION 9-------METALIZATION CHECK
Ir-~-------I. INSPECTION FINISHED WAFERS
I 100% PROBING ?-----AVERAGE OUTGOING QUALITY EVALUATION PACKING IN HERMETICALLY SEALED BAGS
1
•
VISUAL INSPECTION
WAFER WAREHOUSE (F.I.F.O. PROCEDURE)
End of "Lot Tracking"
~
..'YI
SCiS-THOMSON
illD©OO(QJ~~~©"frm@illD©:ll
27
QUALITY Note: SPC methods are used for Process Control Assurance and continual quality improvement towards Zero defect target. Hihg values of process control capability (CPK) at each significant step assure reliable results at the end of the process METAL CASE ASSEMBLY - TYPICAL FLOW CHART
WAFERS FROM WAREHOUSE Initialization of Production Route Card (linked to "Lot Tracking" for traceability throughout the process)
I SAWING VISUAL CHECK ,----------~ I-----~---___
RAW MATERIALS HEADERS INSPECTION
DIE ATTACHING
1 - - - - - - - - - 1•• DIE ATTACHING
INSPECTION
WIRE BONDING
1 - - - - - - - - -__ WIRE BOND INSPECTION PRE-CAP ACCEPTANCE SEALING
1 - - - - - - - - - - 1•• SEALING INSPECTION LEAD FINISH LEAD FINISH ACCEPTANCE
I - - - - - - - -__ INTERNAL WAFER I VAPOR INSPECTION HIGH IMPACT SHOCK RAW LINE ACCEPTANCE
1 - - - - - - - - - . SHORT TERM RELIABILITY TEST (RTC)
RAW LINE WAREHOUSE (F,I.F,O, PROCEDURE) End of production route card with raw line acceptance
28
QUALITY Note: SPC methods are used for Process Control Assurance and continual quality improvement towards Zero defect target. Hihg values of process control capability (CPK) at each significant step assure reliable results at the end of the process FINISHING - TYPICAL FLOW CHART
RAW LINE STORE
Initialization of "Lot Identification" linked to other traceability documents
FIRST TESTING I
FALLOUT ANALYSIS FALLOUT RE-TESTING I
ADDITIONAL STEPS ON REQUEST I
SECOND TESTING
1 - - - - - - - - 1•• REJECT ANALYSIS (corrective action) MARKING
PACKING (label with lot identification)
LI
FINISH PRODUCT ACCEPTANCE AVERAGE OUTGOING QUALITY EVALUATION
FINISHED PRODUCTS WAREHOUSE (F.I.F.O. PROCEDURE)
1 SHIPMENT TO CUSTOMERS
•
AUDITS
End of "Lot Identification"
29
SURFACE MOUNTING CASE - SOT 23 Description The ever growing electronics equipment market is directed towards the shrinking of equipment size, weight and height, while demanding more diversified functions. To meet these requirements Surface Mounting Techniques (SMTs) are being employed. The miniaturized components such as capacitances, resisitors, inductors, transistors, diodes, les, etc. are mounted on the surface of a board rather than having their leads inserted through holes. The use of micropackage devices offers many advantages compared to conventional assembly techniques. 1) The end product can be made more compact with about three times the mounting density as conventional components. 2) Easy handling and automated assembly cut production costs, e save on labour and time.
30
3) The small size of the packages reduces stray inductance and cpacitance and also improves RF performance. 4) The moisture resistance and mechanical ruggedness of the epoxy package ensure high reliability. Over the last few years SGS-THOMSON has introduced a large number of surface face mounted devices of which the SOT-23 is one of the most popular. The flat SOT-23 devices are packaged and shipped in super 8 tape & reels. The tapes are made of special conductive vinyl. These reels are designed to hold and protect thousands of surface mountable components-enough to keep robots busy assembling printed circuit boards for hours at a time! Datasheets are available on request.
SURFACE MOUNTING CASE: SOT 23 TAPE MECHANICAL DATA
N
M
p
G
R PC-0282
DIMENSIONS mm
inches
min
max
min
max
A
2.95
3.05
0.116
0.120 0.104
B
2.55
2.65
0.100
C
1
1.1
0.039
0.043
D
1.5
1.6
0.059
0.063
E
1.95
2.05
0.076
0.080
G
3.9
4.1
0.153
0.161
H
3.45
3.55
0.135
0.140
L
1.65
1.85
0.065
0.073
M
7.8
8.2
0.307
0.322
N
-
0.3
-
0.D12
P
1.3
1.4
0.051
0.055
R
-
1.8
-
0.070
Shear force needed to peel back the tape. 0.2 to 1.3 N at 300 mm/min.
..r=-= ..,I SGS-1HOMSON jjJu©Iiil©~~~©'jOO©IRlU©il)
31
SURFACE MOUNTING CASE: SOT 23 REEL MECHANICAL DATA
F
PC-0280
DIMENSIONS
mm
A
inches
min
max
min
12.5
max
13.5
0.492
0.531 0.866
B
20
22
0.787
C
68
72
2.677
2.834
D
78
8~
3.070
3.228
E
138
142
5.433
5.590
F
176
180
6.929
7.080 0.098
G
1.5
2.5
0.059
H
8.4
9.9
0.330
0.390
ex
40°
40°C
~
120°
120°
Quantity per Reel = 3000 pieces
32
SURFACE MOUNTING CASE: SOT 23 PACKAGE
(
p
t----B---.I
o
PC-0300
DIMENSIONS
mm
inches
min
max
min
max
A
0.93
1.04
0.036
0.041
B
2.8
3
0.110
0.118
C
1.2
1.4
0.047
0.055
D
2.1
2.5
0.082
0.098
E
1.9
2.05
0.074
0.080
F
0.95
1.05
0.037
0.041
G
0.45
0.60
0.017
0.023
H
0.15
-
0.006
-
L
0.065
0.115
0.003
0.004
M
0.013
0.1
0.0005
0.004
N
0.06
-
0.003
P
0.45
0.6
0.017
0.023
R
0.37
0.46
0.014
0.018
-
pin 1 = EMITTER pin 2
=
BASE
pin 3 = COLLECTOR
33
DATASHEETS
35
BC107 BC1 08-BC1 09 LOW NOISE GENERAL PURPOSE AUDIO AMPLIFIERS DESCRIPTION The BC107, BC108 and BC109 are silicon planar epitaxial NPN transistors in TO-18 metal case.They are suitable for use in driver stages, low noise input stages and signal processing circuits of television receivers. The complementary PNP types are respectively the BC177, BC178 and BC179.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
:~:
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0) = 0)
VCBO
Collector-base Voltage (IE
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
= 0)
Value
Unit
BC107
BCt08
BCt09
50
30
30
V
45
20
20
V
5
5
6
V
Collector Current
100
mA
Ptot
Total Power Dissipation at T amb " 25 DC at T case" 25°C
0.3 0.75
W W
T stg
Storage Temperature
- 55 to 175
DC
Ti
Junction Temperature
175
DC
Ic
January 1989
1/5
37
BC1 07-BC1 08-BC1 09 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
200 500
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICBO
Parameter Collector Cutoff Current (I E = 0)
Test Conditions
V(8R)C80
Collector-base Breakdown Voltage (IE = 0)
Ic=101JA
V(8R)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
le=10mA
V{BR)E80
Emitter-base Breakdown Voltage (Ic = 0)
IE =101JA
VCE(sa!) *
Collector-emitter Saturation Voltage
Ic = 10 mA Ic = 100 mA
IB = 0.5 mA 18 = 5 mA
Base-emitter Voltage
Ic = 2 mA Ie = 10 mA
VeE = 5 V VeE = 5 V
Base-emitter Saturation Voltage
Ie = 10 mA Ie = 100 mA
18 = 0.5 mA 18 = 5 mA
DC Current Gain
Ie = 2 mA
VBE * VBE(sa') * hFE *
Ic=101JA
• Pulsed: pulse duration
2/5
38
= 300 ~s, duty cycle = 1 %.
Min.
Typ.
for BC1 07 Ve8 =40 V T amb = 150 DC Ve8 =40 V for BC1 08-BC 109 Ve8 = 20 V T amb = 150 DC Ve8 = 20 V
Max.
Unit
15 15
IJA
15 15
~A ~A
nA
for BC1 07 for BC108 for BC1 09
50 30 30
V V V
for BC1 07 for BC1 08 for BC1 09
45 20 20
V V V
for BC1 07 for BC1 08 for BC1 09
6 5 5
V V V
VCE = 5 V for BC1 07 for BC1 07 Gr. for BC1 07 Gr. for BC108 for BC1 08 Gr. for BC1 08 Gr. for BC1 08 Gr. for BC1 09 for BC1 09 Gr. for BC1 09 Gr. VCE = 5 V for BC1 07 for BC1 07 Gr. for BC1 07 Gr. for BC1 08 for BC1 08 Gr. for BC1 08 Gr. for BC1 08 Gr. for BC109 for BC1 09 Gr. for BC1 09 Gr.
550
70 200
250 600
mV mV
650 700
700 700
mV mV mV mV
750 900
A B A B C B C
A B A B C B C
110 110 200 110 110 200 420 200 200 420
40
40 100 40 40 100
230 180 290 350 180 290 520 350 290 520 120 90 150 120 90 150 270 150 270
450 220 450 800 220 450 800 800 450 800
BCl 07-BC1 OS-BCl 09 ELECTRICAL CHARACTERISTICS (continued) Symbol hIe
Parameter
Min.
Test Conditions
Small Signal Current Gain
Ic = 2 mA f = 1 kHz
Ic = 10 mA 1=100MHz
lor BC107 lor BC1 07 Gr. lor BC1 07 Gr. lor BC1 08 lor BC1 08 Gr. lor BC1 08 Gr. lor BC1 08 Gr. lor BC1 09 lor BC109 Gr. lor BC1 09 Gr. VCE=10V
IE = 0 1=1 MHz
VCB = 10 V
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =0.5 V
NF
Noise Figure
Ic = 0.2 mA Rg = 2 kQ B = 200 Hz
VCE = 5 V 1=1 kHz
Ic = 2 mA 1=1 kHz
=
300 ~s, duty cycle
=
A B C B C
pF
6 pF
BC1 07 BC1 08 BC1 09 =5 V
2 2 1.5
10 10 4
dB dB dB
lor BC109
1.5
4
dB
VCE = 5 V lor lor lor lor lor lor lor lor lor lor
• Pulsed: pulse duration
Unit
250 190 300 370 190 300 500 370 300 550
12
Ic = 0.2 mA Rg = 2 kQ I = 10Hz to 10kHz B = 15.7 kHz Input Impedance
A B
4
lor lor lor VCE
hie
Max.
2
Collector-base Capacitance
CCBO
Typ.
VCE = 5 V
BC1 07 BC1 07 BC1 07 BC108 BC1 08 BC1 08 BC1 08 BC1 09 BC1 09 BC1 09
4
Gr. A Gr. B Gr. A Gr. B Gr. C Gr. B Gr. C
3 4.8
5.5 3 4.8
7 5.5 4.8
7
kQ kQ kQ kQ kQ kQ kQ kQ kQ kQ
t %.
3/5
39
BC107-BC108-BC109 ELECTRICAL CHARACTERISTICS (continued) Symbol
Test Conditions
Parameter
Ic = 2 mA f = 1 kHz
Reverse Voltage Ratio
hr.
VCE for for for for for for for for for for
Ic = 2 mA f = 1 kHz
Output Admittance
hoe
Typ.
Max.
=5
2.2x10- 4 1.7x10-4 2.7x10- 4 3.1 x1 0- 4 1.7x1 0- 4 2.7x10- 4 3.8x10- 4 3.1 x1 0- 4 2.7x10- 4 3.8x10- 4
Gr. A Gr. B Gr. A Gr. B Gr. C Gr. B Gr. C V
BC107 BC1 07 BC1 07 BC1 08 BC1 08 BC1 08 BC1 08 BC109 BC109 BC1 09
~S ~S ~S ~S ~S ~S ~S ~S ~S ~S
20 13 26 30 13 26 34 30 26 34
Gr. A Gr. B Gr. A Gr. B Gr. C Gr. B Gr. C
= 1 %.
• Pulsed: pulse duration = 300 Ils, duty cycle
Collector--emitter Saturation Voltage.
DC Normalized Current Gain. G 3216
, III' 111I 1.6
I~
~
II
I
!
I!
I
l'
I
!,
V
25-C
;1
I' I
I I
f"""
"
18
,I
I
liiltiTfilllfV
i I
I
0
,
NORMAL ZATION --:hFE= latIC=2mA 0
II
,
i
I
\1
I, , ,
!!
I"
i
I I
i I' I
I
I
I'
,
I
11I1I1 II.illlll 10
40
Ie" 20
,,
!" I !
11'
,....
I
Ii
1
I1I1I11
160
amb=4S-C
I
4/5
:
120
0.8
II~ j
I
I
1.Z
0.4
G 3211
VCE(sat ) (mV)
i
1:
Unit
V
BC1 07 BC1 07 BC1 07 BC108 BC108 BC1 08 BC1 08 BC109 BC1 09 BC1 09
VCE for for for for for for for for for for
Min.
=5
0 Ie (mA)
10
Ie (mA)
BC1 07·BC1 08·BC1 09 Collector-base Capacitance.
Transition Frequency. G-1l1911
G-3218
II
'r
CCBO
(MHz )
(pF)
r\
220
=0
IE
VeE'= 10
\
200
'"
V
180
.........
r-
-
~
160
I
14a
1/
120 100 10- 1
12
Noise Figure (for Be 109 only).
10
IC(mA)
Noise Figure (for Be 109 only). G-)220
R9 (kfi)
'\:
'l'
l.d~ "
" ~ ,~
"" I"
,
,,,-
, IT
r--.
l\
t'-..1'-. VeE
r-+-
.
,
1-1
ni
10- 1
10-3
=5V
t= 100Hz 8=2QHz
5
II
1.5dB
,t:=
4
f" 100Hz B:::?OHz'
......
,
4
~
'c(mA)
Power Rating Chart. G-3222
Rg
-
"fVCE= = 5V
~
'~ 10
'S:
1
"J t-....
'"
4~
l'-'1"-
,
~
25 a
15
1.5dB '
I Ii i l
t-....""'" 2
l'
...;;;:;;:
I
'"1'\
I"\.
a
1'\ 1'\
of-- t--
4
Ie
I
1"-
f - I-----
o (rnA)
25
50
75
100
I
FRiEAIR
1'\
10 a
,
t-:::::=t-t-!.. 10- 1
1'\
20 a I
" " l~--
ll"\.
I
1
" ," .........
G-J22J
Pto
ImW
;; f=1OHztol0kH z 6=15.7 kHz
,
5
l C(mA)
Noise Figure (for Be 109 only). (kG)
,
' 'I' nil'\. l\. '.
I"
2
VeE'= SV
,
~
~ [\TT
~
5
IkM " "1--,
.;::::r:::F K
10
G-3221
R9
" "
1'\
+-- f -
1"-
I'\.
125
5/5
41
BC119 AUDIO OUTPUT AMPLIFIER DESCRIPTION The BC119 is a silicon planar epitaxial NPN transistor in a TO-39 metal case. It is suitable for 1 W class "A" and up to 6 W class "B" audio output stages.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol Vcso VCEO VEso Ptot
Parameter
Value
Unit
60
V
= 0) Collector-emitter Voltage (Is = 0) Emitter-base Voltage (Ic = 0)
30
V
5
V
Total Power Dissipation at Tamb 5: 25°C at Tease 5: 25°C at Tease 5: 100°C
0.8 5 2.8
W W W
Collector-base Voltage (IE
Tstg
Storage Temperature
- 55 to 200
°C
Tj
Junction Temperature
200
°C
January 1989
1/2
43
BC119 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (Tamb Symbol
Collector Cutoff Current (IE ~ 0)
ICBo
V(BR)CBO
V(BR)CEO
.
V(BR)EBO
VCE(sat)
VBE
.
VBE(sat)
hFE
.
.
iT CCBO
44
Test Conditions
VCB VCB
~ ~
40 V 40 V
Ic ~ 100 ~A
Collector-emitter Breakdown Voltage (IB ~ 0)
Ic
Emitter-base Breakdown Voltage (Ic ~ 0) Collector-emitter Saturation Voltage
Base-emitter Saturation Voltage
Min.
Typ.
Tamb ~ 150°C
Max.
Unit
100 20
~A
nA
60
V
30 mA
30
V
IE ~ 100 ~A
5
V
Ic Ic Ic
~
~ ~ ~
150 mA 500 mA 1A
Ic ~ 500 mA Ic ~ 150 mA Ic Ic
~
~
150 mA 1A
IB IB IB
~ ~ ~
0.15 0.4 0.8
15 mA 50 mA 100 mA
VCE~10V
VCE ~ 1 V IB IB
~ ~
15 mA 0.1 A
Ic ~ 50 mA Ic ~ 150 mA Ic ~ 500 mA
VCE ~ 1 V VCE ~ 1 V VCE ~ 10V
40 40 25
Transition Frequency
Ic ~ 50 mA
VCE~10V
40
Collector-base Capacitance
IE
DC Current Gain
• Pulsed: pulse duration = 300 flS, duty cycle = 1 %.
2/2
25°C unless otherwise specified)
Collector-base Breakdown Voltage (IE ~ 0)
Base-emitter Voltage
.
~
Parameter
35 220
~
0
VCB ~ 10 V
0.35 1.1 1.5
V V V
1 0.85
1.8 1
V V
0.9 1.4
1.2 2
V V
100 90 60
120 MHz
12
25
pF
BC139 AUDIO OUTPUT AMPLIFIER DESCRIPTION The BC139 is a silicon planar epitaxial PNP transistor in a TO-39 metal case. It is particularly designed for use in audio output and driver stages. The complementary NPN type is the BC119.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
::~: s-
B
E
6896
ABSOLUTE MAXIMUM RATINGS Value
Unit
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
-40
V
-40
V
-5
V
Collector Current
-0.5
A
0.7
Symbol VCBO VCEO VEBO Ic
Parameter Collector-base Voltage (IE
Ptot
Total Power Dissipation at T amb ~ 25°C at Tease ~ 25°C
3
W W
Tst9
Storage Temperature
- 55 to 200
DC
Tj
Junction Temperature
200
DC
January 1989
1/3
45
BC139 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Ju nction-ambient
58 250
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICBO
Parameter Collector Cutoff Current (IE = 0)
Test Conditions VCB = - 30 V Vcs = - 30 V
Min.
Typ.
T amb = 75°C
Max.
Unit
- 100 - 50
nA !lA
V(SR)CSO
Collector-base Breakdown Ic=-10flA Voltage (IE = 0)
- 40
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic=-10mA
- 40
V
V(BR)ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10flA
-5
V
VCE(sat) *
Collector-emitter Saturation Voltage
Ic Is Ic IB
Base-emitter Voltage
Ic=-10mA VCE=-10V Ic =- 100 rnA VCE=-10V Ic =- 300 rnA VCE=-1V
VBE *
hFE *
IT Ccso
DC Current Gain
46
300 rnA 30 rnA 500 rnA 50 rnA
- 0.45
Ic=-10mA VCE=-10V Ic =-100 rnA VCE=-10V Ic =-150 rnA VCE=-1V Ic =- 300 rnA VCE=-1V
- 0.8
V
-1
V
- 0.7
V
- 0.77
V
- 0.97
V
90 40
90 45
20
Transition Frequency
Ic =- 50 rnA
VCE=-10V
Collector-base Capacitance
IE = 0 1 = 1 MHz
Vcs=-10V
* Pulsed: pulse duration = 300 ~s, duty cycle = 1 %.
2/3
====-
35 200
MHz pF
6
BC139 Base-emitter Voltage.
DC Normalized Current Gain. G 3211,
G 3213
II
Ie =_50mA
-
VeE =-lV
0.85
lamb =45-<:
1.2
A
i'..
0.8
"
0.75
.......
/ I'...
0.7
0.8
"
/
0.6
.........
I'-..
0.65
o
40
20
60
Collector-emitter Saruration Voltage.
OJ.
r\
[\\
I
nII
~
I
---t-H
........
I
e;;.
-tlt
NORMALIZATION Ie =-IQOmA VCE =-10V
.
, Ii, ,
II , II, .,
10
, ,
10'
-Ie
., (rnA)
Power Rating Chart. G 3215
G 0893
-YCE(sati (v )
6
!!
-1c.=-10IB
ILl ~'I-
~
~,,~
V
~~~ 't"
N
. ..
, 10
..
(!!.;!!;.£ AIR \0 2
-Ie. (rnA)
50
100
3/3
47
BC140 BC141 GENERAL PURPOSE TRANSISTORS DESCRIPTION The BC140 and BC141 are silicon planar epitaxial NPN transistors in TO-39 metal case. They are particularly designed for audio amplifiers and switching applications up to 1 A. The complementary PNP types are the BC160 and BC161.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
:~:
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO
Parameter
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0) Collector-base Voltage (IE
Value BC140
BC141
Unit
80
100
V
40
60
V
7
V
1
A
Ic
Collector Current
IB
Base Current
0.1
A
Total Power Dissipation at T amb " 45°C at T case" 45°C
0.65 3.7
W W
Ptot Tst9
Storage Temperature
- 55 to 175
°C
Ti
Junction Temperature
175
°C
January 1989
1/3
49
BC140-BC141 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
35 200
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICES
Collector Cutoff Current (IE = 0)
V(BR)CBO
V(BR)CEO'
V(BR)EBO
VCE(sat)
VBE hFE
. .
.
Test Conditions VCEs=60V VCEs=60V
Tamb = 150°C
Max.
Unit
100 100
~
nA
lor BC140 lor BC141
80 100
V V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =30 mA lor BC140 for BC141
40 60
V V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100
7
V
Collector-emitter Saturation Voltage
Ic = 100 mA Ic = 500 mA Ic = 1 A
IB=10mA IB = 50 mA IB =0.1 A
0.1 0.35 0.6
1
V V V
Base-emitter Voltage
Ic = 1 A
VCE = 1 V
1.25
1.8
V
DC Current Gain
Ic=100~
~
VCE = 1 V BC140-141 BC140-141 Gr. 6 BC140-141 Gr. 10 BC140-141 Gr. 16 VCE = 1 V BC140-141 BC140-141 Gr. 6 BC140-141 Gr.10 BC140-141 Gr.16 VCE = 1 V BC140-141 BC140-141 Gr. 6 BC140-141 Gr.10 BC140-141 Gr.16
75 28 40 90 40 40 63 100
140 63 100 160
250 100 160 250
26 15 20 30 MHz
50
Transition Frequency
Ic = 50 mA
VCE=10V
CeBo
Collector-base Capacitance
IE = 0 1=1 MHz
VeB=10V 25
pF
ton
Turn-on Time
Ic=100mA IBt = 5 mA
250
ns
toff
Turn-olf Time
Ic=100mA IB1 = IB2 = 5 mA
850
ns
IT
• Pused : pulse duration = 300
50
Typ.
Collector· base Breakdown Ic=100~ Voltage (IE = 0)
lor for for lor Ic=100mA lor for for for Ie = 1 A lor lor for for
2/3
Min.
~s,
duty cycle
= 1 %.
12
BC140-BC141 Base-emitter Voltage.
Collector-emitter Saturation Voltage. ) (v)
I
,
+ t
~-
11I
--f---
t--
-
0.5
-
.
-
fL----
[-
-
~H
~
,
IJBEtonJ
!
(v)
II,
I I
vc;Lv-
,
--
I
H- '
,
I,
f--
-t
).1,
,.
--
~t, 'I'
;......-,;
-1----
-
---
0_5
-
-
-
i
,
-
-
--
r..-
1
10
~-
10'
-
10
+--
+-
+--
10'
~ffl 'c(mA)
Transiition Frequency.
DC Curent Gain.
200
c--
I 111111111 I I :1 I: I I 111111111W- l+I' I: I I . 1V i '1 I, -1J'CE· :,tI' fIt- 1 ., I , II!I GR.16 , , , , 1\ / ' ,. , I I, I , ::1____ 1 '~ II'\. I--' Ii-' GR.6
,H
100
..... H'". I! I
I!..i
.
,
T
..
I
~ 1-:11
10
3/3
51
BC142 AUDIO AMPLIFIER DESCRIPTION The BC142 is a silicon planar epitaxial NPN transistor in a TO-39 metal case specially intented for use as driver in high power audio amplifier.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
80
V
VCEO
Collector-emitter Voltage (Is = 0)
60
V
VESO
Emitter-base Voltage (Ic = 0)
7
V
Collector Current
1
A
0.75
4
W W
- 55 to 175
DC
Ic Ptot T stg , Tj
January 1989
Parameter
Total Power Dissipation at T amb " 25 DC at T case " 25 DC Storage and Junction Temperature
1/2
53
BC142 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
=
37
Max Max
200
25 'C unless otherwise specified) Max.
Unit
50 50 80
nA !lA V
Ic = 30 mA
60
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 !lA
7
V
VCE Isat) *
Collector-emitter Saturation Voltage
Ic = 200 mA IB = 500 mA
Ic = 20 mA IB = 50 mA
VBE Isat) *
Base-emitter Saturation Voltage
Ic = 200 mA
IB =20 mA
IcBo
Test Conditions
Collector Cutoff Current (IE = 0)
VCB =40 V V CB =40V
VIBR)CBO
Collector-base Breakdown Voltage (I E = 0)
Ic=100!lA
VIBR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
VIBR)EBO
VBE *
Base-emitter Voltage
Ic = 200 mA
hFE *
DC Current Gain
Ic Ic Ic Ic
fT CCBO
= 10 mA = 100 mA = 200 mA = 500 mA
Min.
Typ.
T amb = 150 °C
0.15 0.3
2V
0.85
VCE=10V VCE =10V VCE = 2V VCE = 2V
100 100 60 30
VCE =
20
0.4
V V
1.5
V V
Transition Frequency
Ic = 50 mA f = 20 MHz
VCE =10V
80
MHz
Collector-base Capacitance
IE =
a
VCB=10V
12
pF
• Pulsed: pulse duration = 300 fls. duty cycle = t %.
DC Current Gain
VS.
Collector Current.
Base-emitter on Voltage
vs. Collector Current.
-
EHJJJ~~1 160
I
75·C
:1,
!
120
25·C
!
'~
80
~
0.1
2/2 54
-
i
1
"sE{onI (v
'VCE =10V
11\ , I
-
0.8
0.6
f-
"I
f-
IIII 10
I
,
_. Ii I
~:
I
IIIIIIII
I
iI
"
I:
40
,
I
I
r--
,
I
!~
-
~ /
o·c
--
IIJ~C
~
0.4
I
,
,,~c
Ii
I
T I
0.2 0.1
10
100
Ie (mA)
BC143 AUDIO AMPLIFIER DESCRIPTION The BC143 is a silicon planar epitaxial PNP transistor specially designed for use in the driver of high power audio amplifiers.
TO-39
INTERNAL SCHEMATIC DIAGRAM
::~: ABSOLUTE MAXIMUM RATINGS Symbol VCBo VCEO VEBO Ic Ptot Tstg , Tj January 1989
Parameter
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0) Collector-base Voltage (IE
Collector Current Total Power Dissipation at T amb at Tease
25 °C S; 25 °C
S;
Storage and Junction Temperature
Value
Unit
- 60
V
-60
V
-5
V
-1
A
0.75 4
W W
- 55 to 175
°C
1/2
55
BC143 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
37 200
ELECTRICAL CHARACTERISTICS (Tamb = 25°C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
-50 - 50
nA J.lA
Collector Cutoll Current (IE = 0)
V cB =-30V VCB = - 30 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic = 100J.lA
- 60
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 10 mA
-60
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10 J.lA
-5
V
Collector-emitter Saturation Voltage
Ic = 500 mA Ic = lA
Base-emitter Voltage DC Current Gain
ICBo
VCE(sal) VBE hFE
.
. .
hfe Ccso
(T amb = 150 DC)
IB = 50 mA IB = 100 mA
- 0.25 - 0.7
Ic = - 500 mA
V cE =-10V
-1.1
Ic Ic Ic Ic
V cE =-10V VCE=-10V VCE = -1 V VCE = - 1 V
110 110 40 25
= = = =
10 mA 100 mA - 300 mA 500 mA
20
High Frequency Current Gain
Ic = 50 mA I = 100 MHz
V cE =-10V
1.5
Collector-base Capacitance
IE = a 1= 1 MHz
Vcs=-10V
13
- 0.5 -1
V V V
pF
• Pulsed: pulse duration ~ 300 [Is, duty cycle ~ 1 %.
DC Current Gain
VS.
Collector Current.
Base-emitter on Voltage
VS.
Collector Current.
G -" 506
E
160
I !IIIII
-t
Vc
1
I
i
I
eo
~
40
i
2/2
56
I
I
!
Ii!
....
I 75-C'
,
I
25- C
I~
,
+-O-c ' ! !
I '
I
i, -0.6
-
-0.2 IC(rnA)
I
I
0.1
'-
1·1
c .:t8~ 0'
25'C
I, I
-
-0. 4
100
!'
i
-0.6
I
I
-
iji I
I I II ' Ii II: Ii I 10
veE = -lOV
(V)
-1
I
II I
VBE(on )
,
Ii
Iii
:;:;;:
0.1
-ft~ Jil, I!'~
I
120
E=-10V
7
I
!~
~ I!!/
I
II~
..i-!
'I! i
iil!; -iii
llillt 1
I
! !
I
I I
,,
I IIII 10
100
'C(rnA)
BC160 BC161 GENERAL PURPOSE TRANSISTORS DESCRIPTION The BC160, and BC161 are silicon planar epitaxial PNP transistors in TO-39 metal case. They are particurlarly designed for audio amplifiers and switching applications up to 1A. The complementary NPN types are the BC140 and BC141 .
TO-39
INTERNAL SCHEMATIC DIAGRAM
:~:
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value BC160
BC161
Unit
Vcso
Collector-base Voltage (IE = 0)
- 40
- 60
V
VCEO
Collector-emitter Voltage (Is = 0)
- 40
- 60
V
VESO
Emitter-base Voltage (Ic = 0)
-5
V
Ic
Collector Current
-1
A
Is
Base Current
- 0.1
A
P'o'
Total Power Dissipation at T amb ~ 45°C at T case ~ 45°C
0.65 3.7
W W
T S '9 Tj
Storage Temperature
- 55 to 175
°C
Junction Temperature
175
°C
January 1989
1/3
57
BC160-BC161 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
35 200
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
Collector Cutoff Current (IE = 0)
ICEs
V(BR)CBO
V(BR)CEO
.
V(BR)EBO
VCE(Sa')
VBE hFE
hFE
·
·
·
.
= 40 V = 60 V = 40 V = 150°C = 60 V = 150 'C
Typ.
Max.
Unit
for BC160 for BC161 for BC160
- 100 - 100 - 100
nA nA j.lA
for BC161
- 100
j.lA
Collector-base Breakdown Voltage (IE = 0)
Ic =- 100 j.lA
Collector-emitter Breakdown Voltage (lB = 0)
Ic =- 10 mA
Emitter-base Breakdown Voltage (Ic = 0)
IE = - 100 j.lA
Collector-emitter Saturation Voltage
Ic=-0.1A Ic=-0.5A Ic = - 1 A
IB =- 10 mA IB =- 50 mA IB =-0.1 A
- 0.1 - 0.35 - 0.6
-1
V V V
Base-emitter Voltage
Ic =- 1 A
VCE = - 1 V
-1
- 1.7
V
DC Current Gain
Ic = - 100 j.lA VCE = - 1 V for BC160-161 for BC160-161 Gr. for BC160-161 Gr. for BC160-161 Gr. Ic =-100 mA VCE=-1V for BC160-161 for BC160-161 Gr. for BC160-161 Gr. for BC160·161 Gr.
DC Current Gain
Ic =- 1 A for for for for
for BC160 for BC161
- 40 - 60
V V
for BC160 for BC161
- 40 - 60
V V
-5
V
110 46 80 120
6 10 16
6 10 16
40 40 63 100
VCE=-1V BC160-161 BC160·161 Gr. 6 BC160-161 Gr. 10 BC160-161 Gr. 16
140 63 100 160
250 100 160 250
26 15 20 30
Ic =- 50 mA
VCE=-10V
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB=-20V
CEBO
Emitter-base Capacitance
VEB =- 0.5 V
f = 1 MHz
ton
Turn-on Time
Ic =- 100 mA IBI = - 5 mA
500
Ic =- 100 mA IBI = IB2 =- 5mA
650
toff
Turn-off Time
• Pulsed: pulse duration
58
VCES VCES VCES T amb VCES T amb
Min.
Transition Frequency
fT CCBO
2/3
Test Conditions
Parameter
~
300 Ils, duty cycle
~
1 %.
50
MHz pF 15
30 180
pF ns ns
BC160-BC161 Collector-emitter Saturation Voltage.
Base-emitter Voltage.
I
I
I
CE= 1V
hFE ,"10
.,/
I
I
I
i
I I I
0.5 I
,I i II II t-- L III
,
i
--
0.5 I I
, ,
I
1
i
, I
Vf "
if-"'"
,
I
II
Ji
10
10
DC Current Gain.
Transition Frequency. G 4516
"FE
I IJII , IllLlu
)
I !llli,!:~!I' 1111 il,:/ , I li~i , !!!I /' I , ' i :\ 1 ,j !i I ! i i' ilii!1 "J i I Y !1: i iilil. .\! VI i I! Illi '\ I
!
VCIC'O V; '
200
! J L. I I III "
iii,
I "
11
GR.16
I
J
r
;'1,
f
I,'
II
100
I
I
i
!!
j
!
II
'.
-
"
, 10
I
I
I
,
,
1
50
I
.II..
10
!'I
i :: I!I!
I I! ' I I II III ,I II. II .
I ,
!
:
! \
I: II II
I
3/3
59
BC177 BC178-BC179 LOW NOISE GENERAL PURPOSE AUDIO AMPLIFIERS DESCRIPTION The BC177, BC178 and BC179 are silicon planar epitaxial PNP transistors in TO-18 metal case. They are suitable for use in driver audio stages, low noise input audio stages and as low power, high gain general purpose transistors. The complementary NPN types are respectively the BC107, BC108 and BC109.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
::1:
B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
BC177
BC178
BC179
Unit
VCES
Collector-emitter Voltage (VBE = 0)
- 50
- 30
- 25
V
VCEO
Collector-emitter Voltage (IB = 0)
- 45
- 25
- 20
V
VEBO
Emitter-base Voltage (Ic = 0)
-5
V
Collector Current
- 100
mA
ICM
Collector Peak Current
- 200
mA
P tot
Total Power Dissipation at T amb S 25 'C
300
mW
Ic
T stg
Storage Temperature
- 65 to 175
°C
Ti
Junction Temperature
175
°C
January 1989
1/4
61
BC177-BC178-B179 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
200 500
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICEs
Collector Cutoff Current (VBE = 0)
VCE =-20V VCE=-20V
Collector-emitter Breakdown Voltage (lB = 0)
Ic = - 2 mA
Collector·emitter Breakdown Voltage (VBE = 0)
Ic=- lO IlA
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10flA
Collector· emitter Saturation Voltage
Ic =- 10 mA Ic =- 100 mA
IB =- 0.5 mA IB =- 5 mA
Base-emitter Voltage
Ic = - 2 mA
VCE=-5V
Base-emitter Saturation Voltage
le=-10mA le=-100mA
IB =- 0.5 mA IB =- 5 mA
Small Signal Current Gain
Ie = - 2 mA f = 1 kHz
VeE=-5V
V(BR)CEO
.
V(BR)CES
V(BR)EBO
VCE(sa!) VBE
.
.
VBE(sa!) h'e
Test Conditions
2/4
62
Typ.
Max.
Unit
- 1
- 100 -10
nA flA
T amb = 150 DC for BCl77 for BC178 for BC179
- 45 - 25 - 20
V V V
for BCl77 for BC178 for BC179
- 50 - 30 - 25
V V V
-5
V
for for for for for • Pulsed: pulsed duration = 300 ~s. duty cycle = 1 %.
Min.
BCl77 BCl77 BC178 BC178 BC179
Gr. Gr. Gr. Gr. Gr.
- 550
A B A B B
-75 - 200
- 250
mV mV
- 640
- 750
mV
-720 - 860
125 240 125 240 240
mV mV
260 500 260 500 500
BC177-BC178-BC179 ELECTRICAL CHARACTERISTICS (continued) Symbol IT CCBO NF
Parameter
Test Conditions
Transition Frequency
Ic ~- 10 mA I ~ 100 MHz
Collector·base Capacitance
IE
Noise Figure
Ic ~- 0.2 mA Rg ~ 2 kQ B ~ 200 Hz
~
Min.
VCE~-5V
0
VCB
~
- 10 V
Typ.
Input Impedance
5.0
pF
VCE~-5V
I
Ic ~- 2 mA f ~ 1 kHz
~
1 kHz
Reverse Voltage Ratio
Ic ~- 2 mA f ~ 1 kHz
BC177 BC177 BC178 BC178 BC179
Output Admittance
Ic ~- 2 mA f ~ 1 kHz
-Ie (rnA)
dB dB dB
Gr. Gr. Gr. Gr. Gr.
kQ kQ kn kQ kQ
A B A B B
2.7 5.2 2.7 5.2 5.2
Gr. Gr. Gr. Gr. Gr.
A B A B B
2.7x10- 4 4.5x10- 4 2.7x10- 4 4.5x10- 4 4.5x10- 4
~-5
BC177 BC177 BC178 BC178 BC179
A B A B B
25 35 25 35 35
V
Gr. Gr. Gr. Gr. Gr.
flS flS flS flS flS
DC Normalized Current Gain.
. , 6
2
10
BC177 BC177 BC178 BC178 BC179
VCE for for for for for
DC Transconductance.
10 10 4
VCE~-5V
for for for for lor hoe
2 2 1.2
VCE~-5V
for for for for for h re
Unit MHz
for BC177 for BC178 for BC179 hie
Max.
200
VelE
,
,
L51v
1.5
H++++ltlf--I+I-I+H-II--++H++-I+I--+l+fl++ll
6
H-t
T~J.-
2
,
TVP.I
6 .
,
,
,
0.5
:, 2
bt4-1fttHit--HtittHt-+t+ttHtt-+f-t+ftffi
II
2
2
250
500
10-2
4 68
to- 1
2
4 6 8
2
4 68
10
-Ie (rnA)
3/4
63
BCl77-BC178-B179 Collector-emitter Saturation Voltage.
Normalized h Parameters. G-J243
-VCE
!--t--H+Httt-----t
hN~h~,.~-t-~-h~~E~.·-5~V-t-~-hh~O~• .f+-~ f =lkHz
lYP.
I.
2.5 10
7.5
-ICCmA)
-IC(mA)
Normalized h Parameters.
Collector-base Capacitance. G-3244
Ccao (pF)
~~~~~~~~~~~~~~G~_'~"5 f"lMH
1.5 H---t\d----t--+-+-~_t__H--+-+-~_t__H__t__i f-+_t_H"h,'O'~+-Hf-+_t_~++-I-+-H
TYP.
hI
O.5f-+_t_~+-HI-+_t_~+-HI-+_t_~--H
2.5
2.5
Transition Frequency.
7.5
-~a(V)
Power Rating Chart.
(M,!;) t--_t_~-++tttt- t-t-ttltttt-++j-Hm
PtotrT---'-T1'""T'-rr---'-"'""T'-rr---,-,.--'\G~'n241
(mW)H_t_-HI-+-t-H_t__H--+-+-~+_H__t__i
VCE=-5V
100 1--+++-¥H-tt-t-H-+ttttt------jH +-I-tm
, 10-1
4/4
64
..
, 1
,.
, 10
..
-IC(mA)
30
60
80
120
150
r('C)
BC286 AUDIO AMPLIFIER DESCRIPTION The BC286 is a silicon planar epitaxial NPN transistor in Jedec TO-39 metal case. It is mainly intended for use as audio amplifier. The complementary PNP type is the BC287.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
:~:
B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VC80
Collector-base Voltage (IE = 0)
70
V
VCEO
Collector-emitter Voltage (18 = 0)
60
V
VE80
Emitter-base Voltage (Ic = 0)
5
V
Ic Ptot T stg • Tj January 1989
Collector Current Total Power Dissipation at T amb ,.; 25°C at T case ,.; 25°C Storage and Junction Temperature
1
A
0.75
4
W W
- 55 to 175
°C
1/2
65
BC286 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
37 200
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
IcBo
Test Conditions
Min.
Typ.
Max.
Unit
20
nA
Collector Cutoff Current (IE = 0)
VCB =30 V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100
IlA
70
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 30 mA
60
V
V(BR)EBO
Collector-emitter Breakdown Voltage (Ic = 0)
IE = 100
5
V
VCE(sat)
Collector-emitter Saturation Voltage
Ic = 500 mA Ic = 1 A
IB = 50 mA IB = 0.1 A
Base-emitter Voltage
Ic = 500 mA
VCE =2 V
1
DC Current Gain
Ic = 100 mA Ic = 500 mA
VCE =2 V VCE =2 V
90 60
Transition Frequency
Ic = 50 mA 1= 100 MHz
VCE =5 V
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
V(BR)CBO V(BR)CEO
VBE hFE
. .
IT CCBO
.
.
• Pulsed: pulse duration
2/2
66
IlA
= 300 ms, duty cycle = 1 %.
~
~'"
SriS-THOMSON &'IilOG::OOI!II.IO«:'ITIiI@OOO©1I!
0.4 0.7
20
1
V V V
100
MHz
12
pF
BC287 AUDIO AMPLIFIER DESCRIPTION The BC287 is a silicon planar epitaxial PNP transistor in Jedec TO-39 metal case. It is particularly intended for use as audio amplifier. The complementary NPN type is the BC286.
T0-39
INTERNAL SCHEMATIC DIAGRAM
c
:~:
B
E
ABSOLUTE MAXIMUM RATINGS Value
Unit
VCBO
Collector-base Voltage (IE = 0)
- 60
V
VCEO
Collector-emitter Voltage (IB = 0)
- 60
V
VEBO
Emitter-base Voltage (Ic = 0)
-5
V
Collector Current
-1
Total Power Dissipation at T amb ~ 25°C at T case ~ 25°C
0.75
4
A W W
- 55 to 175
°C
Symbol
Ic Ptot T stg , Tj January 1989
Parameter
Storage and Junction Temperature
1/2
67
BC287 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
37
Max Max
200
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
0.1
50
nA
Collector Cutoff Current (IE = 0)
VCB=-30V
Collector-base Breakdown Voltage (IE = 0)
Ic=-1011A
- 60
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic=-10mA
-60
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=-1011A
-5
V
VCE(sat)
Collector-emitter Saturation Voltage
Ic =- 500 mA IB =- 50 mA IB =- 0.1 mA Ic =-1 mA
- 0.25 - 0.7
Base-emitter Voltage
Ic =- 500 mA VCE=-2V
- 0.93
DC Current Gain
Ic =-100 mA VCE=-2V Ic =- 500 mA VCE =- 2 V
90 60
IT
Transition Frequency
Ic=-50mA f = 100 MHz
CCBO
Collector-base Capacitance (IE = 0)
VCB=-10V f = 1 MHz
ICBo V(BR)CBO V(BR)CEO
VBE hFE
.
. . .
* Pulsed: pulse durallon = 300 I1s, duty cycle = 1 %.
212
68
VCE=-5V
20
-1
V V V
150
MHz
13
pF
BC297 BC298 AUDIO DRIVERS DESCRIPTION The BC297 and BC298 are silicon planar epitaxial PNP transistors in TO-18 metal case. They are particularly intended for use in high current high gain applications, in driver stages of hi-fi equipments or in output stages of low power class B amplifiers. The complementary NPN types are the BC377 and BC378, respectively.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
::4:
B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value BC297
BC298
VCES
Collector-emitter Voltage (VES = 0)
- 50
- 30
VCEO
Collector-emitter Voltage (Is = 0)
- 45
- 25
VESO
Emitter-base Voltage (Ic = 0)
Ie
Collector Current
Is
Base Current
Ptot
Total Power Dissipation at T amb ~ 25°C at T case ~ 75°C
Unit V V
-5
V
-1
A
- 0.2
A
375 1
mW W
T stg
Storage Temperature
- 65 to 175
°C
Tj
Junction Temperature
175
°C
October 1988
113
69
BC297-BC298 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
100 400
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Symbol
V(SR) CEO *
V(SR) ESO
VCE
(sat) *
VSE VSE
.
(sat)
hFE
.
Test Conditions
Parameter Collector Cutoff Curent (VSE = 0)
ICEs
.
Collector-emitter Breakdown Voltage (Is = 0)
For BC297 For BC298
VCE=-50V VCE =-30V
Ic=-10mA
For BC297 For BC298
Min.
Typ.
Max.
Unit
- 100 - 100
nA nA
- 45 - 25
V V V
Emitter-base Breakdown Voltage (Ic = 0)
-5
IE=-10~A
Collector-emitter Saturation Voltage
V Ic =- 500 mA Is =- 50 mA
Base-emitter Voltage
- 0.7
Base-emitter Saturation Voltage
mV
-770
Ic =- 100 mA VCE =- 1 V
V Ic =- 500 mA Is =- 50 mA
DC Current Gain
-1.2
Ic =-100 mA VCE=-1V Ic =-100 mA VCE=-1V Ic =- 300 mA VCE=-1V
Gr.7
75 100 30
260 260
Transition Frequency
Ic =- 50 mA
VCE=-10V
250
MHz
Ccso
Collector-base Capacitance
IE = 0
Vcs=-10V
8
pF
CESO
Emitter-base Capaciatnce
Ic = 0
VES =- 0.5 V
30
pF
IT
• Pulsed: pulse duration = 300 fls. duty cycle = 1 %.
DC Normalized Current Gain.
10'
•• 'l' ,
10'
2/3
70
I
!i "
II'!
Collector-emitter Saturation Voltage.
li0L-
-~
-TVP
.5V
BC297-BC298 Transition Frequency.
Power Rating Chart.
1600
H-+-H-+l-+i-t--+-H--rH-'H-'--;--,-j
1200 H-+H-+l-++-t--+-H-I--+-+-I--H+--i
800 H-+-H-+l-++-t"d-Hc:,:C-,7j _,+-H--+--1-j
, '.
; 'ii' ~OO~~~~-$R~,,~.~~~~~~~~
10
[i
r-+-
iii 1'11'1 'I'
11111
I
10
50
100
150
T toe)
3/3
71
BC300 BC301-BC302 MEDIUM POWER AUDIO DRIVERS DESCRIPTION The BC300, BC301 and BC302 are silicon planar epitaxial NPN transistors in TO-39 metal case.They are intended for audio driver stages in commercial and industrial equipments. In addition they are useful as high speed saturated switches and general purpose amplifiers. The PNP types complementary to BC301 and BC302 are respectively the BC303 and BC304.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
:~:
B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Vcso
Collector-base Voltage (I E = 0)
VCEO
Collector-emitter Voltage (Is
VESO Ic
Emitter-base Voltage (Ic
= 0)
= 0)
Collector Current
ICM
Collector Peak Current
Ptot
Total Power Dissipation at T amb " 25 DC at T case" 25 DC
Value
Unit
BC300
BC301
BC302
120
90
60
V
80
60
45
V
7
V
0.5
A
1
A
0.85 6
W W
T stg
Storage Temperature
- 65 to 175
DC
Tj
Junction Temperature
175
DC
January 1989
1/3
73
BC300-BC301-BC302 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
25 175
ELECTRICAL CHARACTERISTlCS(T case = 25 "C unless otherwise specified) Parameter
Symbol
Test Conditions
IcBo
Collector Cutoff Current (I E = 0)
VCB=60V
lEBO
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic=30mA
V(BR)CBO
Collector-base Breakdown Ic = 100 Voltage (IE = 0)
VCE(sat) *
Collector-emitter Saturation Voltage
Ic=150mA
VBE*
Base-emitter Voltage
Ic=150mA
VcE =10V
hFE *
DC Current Gain Gr. 4 Gr. 5 Gr. 6
Ic=150mA Ic=150mA Ic=150mA Ic =0.1 mA Ic = 500 mA
VCE=10V VCE =10V VCE =10V VCE =10V VCE =10V
fT CCBO hie
74
Typ.
Max.
Unit
5
20
nA
10
nA
for BC300 for BC301 for BC302
80 60 45
V V V
for BC300 for BC301 for BC302
120 90 60
V V V 0.2
IB = 15 mA
0.5
V
0.78 40 70 120 20 20
V
80 140 240
Transition Frequency
Ic = 10 mA
VCE=10V
100
MHz
Collector-base Capacitance
IE = 0
VCB=10V
12
pF
Input Impedance
Ic = 5 mA f = 1 kHz
VCE=10V
Reverse Voltage Ratio
Ic = 5 mA f = 1 kHz
VCE=10V
hte
Small Signal Current Gain
Ic = 5 mA f = 1 kHz
V cE =10V
hoe
Output Admittance
Ic = 5 mA f = 1 kHz
VCE=10V
= 300 ~s. duty cycle = 1 %.
kG 1.1
hre
• Pulsed: pulse duration
2/3
~
Min.
1.7 x 10- 4 140 IlS 14
BC300-BC301-BC302 Collector-emitter Saturation Voltage.
DC Normalized Current Gain.
TYP.
10°•
=="
=
•_
V
V .IV
10'
Power Rating Chart.
Transition Frequency. fr F-": _ ("HZ)~"::' .. __
1,'-'J +1-1+
o
50
100
150
T ("1:)
3/3
75
BC303 BC304 MEDIUM POWER AUDIO DRIVERS DESCRIPTION The BC303 and BC304 are silicon planar epitaxial PNP transistors in TO-39 metal case. They are intended particularly as audio driver stages in commercial and professionnel equipments. In addition they are useful as high speed saturated switches and general purpose amplifiers. The complementary NPN types are respectively the BC301 and BC302.
TO-39
INTERNAL SCHEMATIC DIAGRAM
:~: ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
Vcso
Collector-base Voltage (IE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
Ic
= 0)
Collector Current
ICM
Collector Peak Current
ISM
Base Peak Current
P tot
Total Power Dissipation at T amb at T case
25°C ,;:; 25°C
,;:;
Unit
BC303
BC304
- 85
- 60
V
- 60
- 45
V
-6
V
- 0.5
A
-1
A
- 0.5
A
0.85 6
W W
T stg
Storage Temperature
- 65 to 175
°C
Tj
Junction Temperature
175
°C
December 1988
1/3
77
BC304-BC304 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
25 175
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Symbol
Test Conditions
Parameter
Min.
Typ.
Max.
Unit
-5
- 20
nA
- 20
nA
ICBO
Collector Cutoll Current (IE = 0)
VCB =- 60 V
lEBO
Emitter Cutoff Current (Ic = 0)
VEB =- 5 V
Collector-emitter Breakdown Voltage (IB = 0)
Ic=-10mA
Collector-emitter Saturation Voltage
Ic =- 150 mA IB =- 15 mA
-0.25
Base-emitter Voltage
Ic=-150mA VCE=-10V
- 0.78
V(BR) CEO
VCE
(sat)
VBE hFE
. .
IT
. .
DC Current Gain
For BC303 For BC304
Gr.4 Ic=-150mA VCE=-10V Gr.5 Ic =-150 mA VCE =-10 V Gr.6 Ic =-150 mA VCE =-10 V Ic =- 0.1 mA VCE=-10V Ic =- 500 mA VCE =- 10 V
Transition Irequency
Ic =- 50 mA 1= 100 MHz
V V - 0.65
40 70 120 20 20
MHz
15
pF
0.9
kQ
IE = 0
VcB =-10V
Input Impedance
Ic =-5 mA 1=1 kHz
VCE=-10V
hr.
Reverse Voltage Ratio
Ic = - 5 mA 1=1 kHz
VCE=-10V
hIe
Small Signal Current Gain
Ic =-5 mA 1=1 kHz
VCE=-10V
hoe
Output Admittance
Ic =-5 mA 1=1 kHz
VCE=-10V
l.7xl0 ·4 140 45
• Pulsed: pulse duration = 3001'5, duty cycle = 1%.
Collector-emitter saturation voltage.
11'.1' .
11III1
III1I1I to
213
1111:1111 10'
Ii
II ! -Ie (mAl
L..'1 SGS·ntOMSON • 1<
78
V 80 140 240
100
Collector-base Capacitance
DC Normalized Current Gain.
V
VCE=-10V
hie
CCBO
- 60 - 45
IlIiUI:~£ii'II@OOUI:l!
its
BC303-BC304 Transition Frequency.
Collector Cutoff Current. 6-0246
3/3
79
BC377 BC37S AUDIO DRIVERS DESCRIPTION The BC377 and BC378 are silicon planar epitaxial N PN transistors in TO-18 metal case. They are particularly intended for use in high current, high gain applications, in driver stages of hi-fi equipments or in output stages of low power class B amplifiers. The complementary PNP types are the BC297 and BC298 respectively.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Value
Symbol
Parameter
BC377
BC378
Unit
VCES
Collector-emitter Voltage (VE8 = 0)
50
30
V
VCEO
Collector-emitter Voltage (18 = 0)
40
25
V
VE80
Emitter-base Voltage (Ic = 0)
6
V
Ic
Collector Current
1
A
18
Base Current
0.2
A
Total Power Dissipation at T amb ,; 25 DC at T case'; 75 DC
375 1
W W
Ptot T stg
Storage Temperature
- 65 to 175
°C
Tj
Junction Temperature
175
°C
January 1989
1/2
81
BC377-BC378 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
100 400
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Symbol
Parameter
V(BR) E80
V(BR) CEO
VCE
(sat)
V 8E • V8E
(sat)
hFE
.
. . .
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10 JlA
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 2 mA
Collector-emitter Saturation Voltage
Ic = 100 mA
Base-emitter Saturation Voltage DC Current Gain
Typ.
Max.
Unit
15 15
nA nA
VCE =50 V VCE =30 V
For BC377 For BC378
6
V
40 25
V V
Ic =500 mA IB = 50 mA
Base-emitter Voltage
0.7 V CE = 1 V
Ic = 500 mA 18 = 50 mA Ic = 100 mA Gr.7 Ic = 100 mA Ic =300 mA
1.2 VCE = 1 V VCE = 1 V VCE = 1 V
75 125 35
V mV
740
V
260 260
Transition Frequency
Ic = 50 mA
VCE=10V
100
MHz
Collector-base Capacitance
IE = 0
Vc8 =10V
10
pF
CEBO
Emitter-base Capacitance
Ic = 0
VEB = 0.5 V
30
pF
• Pulsed: pulse duration
=
300
~s.
duty cycle
DC Normalized Current Gain.
82
For BC377 For BC378
Min.
CC80
IT
2/2
Test Conditions
Collector Cutoff Curent (V8E = 0)
ICES
=
1 %.
Collector-emitter Saturation Voltage.
BC393 HIGH VOLTAGE AMPLIFIER DESCRIPTION The BC393 is a silicon planar epitaxial PNP transistor in Jedec TO-18 metal case, designed for general purpose high-voltage and video amplifier applications. The complementary NPN type is the BC394.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
::--~r
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
Vcso
Collector-base Voltage (IE = 0)
- 180
V
VCEO
Collector-emitter Voltage (Is = 0)
- 180
V
VESO
Emitter-base Voltage (Ie = 0)
Ie Ptot
Parameter
Collector Current Total Power Dissipation at T amb <; 25°C at T case <; 25°C
-6
V
- 100
mA
0.4 1.4
W W
T stg
Storage Temperature
- 55 to 200
°C
Ti
Junction Temperature
200
°C
January 1989
1/3
83
BC393 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
125
440
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Collector Cutoff Current (IE = 0)
ICBo
Min.
Typ.
Max.
Unit
50 50
I-lA
VeB =- 100 V Vcs =-100 V Tamb = 150 DC
nA
Collector-base Breakdown Voltage (IE = 0)
le=-101-lA
- 180
V
Collector-emitter Breakdown Voltage (IB = 0)
le=-2mA
- 180
V
V(BR) EBO
Emiter-base Breakdown Voltage (Ic = 0)
I E =-101-lA
-6
V
VCE (sat)'
Collector-emitter Saturation Voltage
V(BR) cso V(BR) CEO
.
VBE (sat) •
hFE
.
Ic=-10mA Ie =- 50 mA
IB =- 1 mA IB =- 5 mA
-100 - 230
- 300
mV mV
le=-10mA Ie =- 50 mA
IB = - 1 mA IB =-5 mA
- 750 - 850
- 900
mV mV
Ie =- 1 mA le=-10mA
VCE=-10V VeE=-10V
50
85 100
Ic=-10mA
VeE =-10V
50
95
IE =0 1=1 MHz
VCB=-10V
Base-emitter Saturation Voltage DC Curent Gain Transition Irequency
IT
Collector-base Capacitance
CCBO
• Pulsed: pulse duration
4
= 300 ~s, duty cycle = 1 %.
DC Current Gain.
Collector-emitter Saturation Voltage. (.-3059
hFE
i ,
120
1111111
11111
IIIIE' 1llliii!
IIII :Iili
100
V I!
60
25'C
lilll 11-55":5-
I
'V
v-
40
0.2
tml
i1ii
0.15
I,
Ill!("
80
(V)
!II'
i'Tamb =125"(.
I
-VCE
' ~ 'I! I i
I
I'll , "I Iii I
0.1
lll~~
0.05
VeE =-10V
20
I 10-3
2/3
10-2
10-1
111II1I1I I !II!IIII 10-'
10 -Ie (rnA)
r== SCS.1HOMSON
A.""!I 84
r--+-+-+t-tHtt
I
filli)DICIiII@W!.~L'II@I!D©@
MHz
7
pF
BC393 Transition Frequency.
Base-emitter Saturation Voltage. VBE(satl ,---,--r--rTTTTr
IV) 0.8
80
0.6
60
0.4
40
20
10- 1
10
-Ie (rnA)
10- 1
10
-Ie (rnA)
3/3
85
, I I I I I I
I I I
I I I
I I I
I I
I I I
I I I I I I I
I I I
I I I
I I I
I I
I I I I I I I I I I
I I I
I I I
I I
I I I
I I I I I I I
I I I
I I I
I I I
I I
I I I
I I I I I I I
I I I
I I I
I I
I I I I
BC394 HIGH VOLTAGE AMPLIFIER DESCRIPTION The BC394 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case, designed for general purpose high-voltage and video amplifier applications. The complementary PNP type is the BC393.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
:~:
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ic Ptot
Parameter
Value
Unit
= 0) Collector-emitter Voltage (I B = 0) Emitter-base Voltage (Ic = 0)
180
V
180
V
6
V
Collector Current
100
mA
Total Power Dissipation at T amb <;: 25°C at T case <;: 25°C
0.4 1.4
W W
Collector-base Voltage (IE
T stg
Storage Temperature
- 55 to 200
°C
Tj
Junction Temperature
200
°C
January 1989
1/3
87
BC394 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
125 440
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Collector Cutoff Current (IE = 0)
ICBo
VCB=100V VCB=100V
Min.
Typ.
Max.
Unit
50 50
nA J.tA
T amb = 150°C
V(BRI CBO
Collector-base Breakdown Voltage (IE = 0)
Ic = 100
J.tA
180
V
V(BRI CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic=10mA
180
V
V(BRI EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100
6
V
VCE (satl *
Collector-emitter Saturation Voltage Base-emitter Saturation Voltage
VBE(satl*
DC Curent Gain
hFE *
Transition frequency
fT
Collector-base Capacitance
CCBO
• Pulsed: pulse duration
=
300 Ils. duty cycle
=
J.tA
Ic = 10 mA Ic = 50 mA
IB = 1 mA IB = 5 mA
200 400
300
mV mV
Ic = 10 mA Ic = 50 mA
IB = 1 mA IB = 5 mA
750 850
900
mV mV
Ic = 1 mA Ic=10mA
VCE=10V VcE =10V
30
85 100
Ic = 10 mA
VCE=10V
50
95
MHz
IE = 0 f = 1 MHz
VCB=10V 5
pF
1 %.
DC Current.
Collector-emitter Saturation Voltage. G-4518
i, , 120 100
II II II
11111li1 I II II! IIIII!II I I I ii' 1IIIllii .1['1 '-'I I . jiTamb =125·~ I' I!' II' .' J..I.I ,I I !i, ..i-W
I I II I ! Ii I!III~ I;! 125°C, I I!IIII; II IilIr"I ! I ! III!!III ·1 i!1I I , , i.J.i11ir! :i- 5S·Y ., I ! I IIV II!III', ..u- ,'I I I ,,' I ,iYli! i'lli ! I 'I ' Ilii: I' ' '11"i VCE = 10V j.. I IIIII!II II 11 11 11, I I I 1I1!1I11 II 111111111 I Iii II III il II I
80 60 40
20
10
2/3
88
G 4519
"CE(sat )
0.2
,
! .
:,
0.1 '
!
I: :
I! iii, Ie (rnA)
Q05
I
,I
0,15
-.......
I i=:::.l '
,
j I ! I
,
Toilmb
N
=_55·C 1
, ,i I,
25'C
.
'!
ij)
I
IV:
i
i
!"
II!
/ /:1 ii' ,V YI I, II!/ ' i Ii I
I'
i
Iii i iii
I
, , , 111I
I!
~
I
125-
III
ill
!
II
le= lOi B
! ,
! III :i Tn'! "
III
II
(V)
. 10
i:
,
i
Ii,, ,
, , , Ie
.
(rnA)
BC394 Transition Frequency.
Base-emitter Saturation Voltage. VSE(sat)
G 4521
,-"-rnmr--r",-rrrrr--,-";::,;';,,
(V) 0.8
0..6
Ii
l--t-++J.I-!1'!i""'
60.
_I i)'11 I~'
y'i
20. /
j'
III'
'III' :
,.
I ,i III 10-'
10.
Ie (rnA)
10-'
Illillll
',,'I
"'. "I.
,ii," III
i
I i Iii!
• I !I
!
40.
0.2
-nJlll!' YT I i
,II!
f---l-1f-+++HtI,IV-A--+! hl+llliIII
!ill'l
,VCE"'o.V',',
t"2D"'~W!1
"~I'
Iii
I II 10
Ie
I
(rnA)
3/3
89
BC440 BC441 MEDIUM POWER AMPLIFIER DESCRIPTION The BC440 and BC441 are silicon planar epitaxial NPN transistors in TO-39 metal case. They are intended for general purpose applications, especially for drive r stages. The complementary PNP types are respectively the BC460 and BC461.
TO·39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
BC440
BC441
Unit
50
70
V
Collector-emitter Voltage (IB
40
60
V
VCER
Collector-emitter Voltage (RBE " 100 0)
50
70
V
VEBO
Emitter-base Voltage (Ic
VCBO VCEO(sUS)
Collector-base Voltage (IE
= 0)
5
V
ICM
Collector Peak Current
2
A
Ptot
Total Power Dissipation at T amb " 25°C at T case" 25°C
1 10
W W
T stg
Storage Temperature
- 65 to 200
°C
Tj
Junction Temperature
200
°C
January 1989
1/2
91
BC440-BC441 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
17.5 175
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Parameter
Symbol
Collector Cutoff Current (IE = 0)
leER
Collector Cutoff Current (RBE = 100 0)
V(BRI EBO
. .
V(SRI CEO
VCE (satl
VBE (satl hFE
.
Typ.
VCB=40V For BC440 For BC441
Max.
Unit
100
nA
10 10
!IA !IA
VCE = 50 V VCE = 70 V
Emitter Base Breakdown Voltage (Ic = 0)
IE = 100!IA
Collector-emitter Breakdown Voltage (IB = 0)
Ic =10 mA
For BC440 For BC441
Collector-emitter Saturation Voltage
Ic = 1 A
Is = 100 mA
1
V
Base-emitter Saturation Voltage
Ic = 1 A
Is = 100 mA
1.5
V
DC Current Gain
Gr. 4
Ic = 500 mA VCE =4 V Ic = 500 mA VCE = 4 V Ic = 500 mA VCE = 4 V Ic = 1 A VCE = 2 V (for BC440 only)
Gr. 5 Gr. 6
iT
Min.
Test Conditions
ICBo
Transition frequency
Ic =50 mA
VCE =4 V
5
V
40 60
V V
40
70
60
130
115 20
250
MHz
50
• Pulsed: pulse duration = 300 !ts. duty cycle = 1 %.
DC Normalized Current Gain. hFEN
I
IIII!I!
I lilli
Collector-emitter Saturation Voltage.
1111111 i ttl! llllii1
VCEsat
1111.
I
LJ.JlULl!----l'.J'-&' :~·I!T'-i-'1~"-H#-+t+IIIH+HI-11-++i-H"fiI'" l.' II" Ii I!. I: 'II
(VI
I
'"II! i'::II;1
(18
1'1,
,II
0.5
92
I
i
I'
0.6
I
I
"
I
I ill, "
I
I)A',
!
'I:
I
0.4
! I I I, ,
,I I
V:' I
II
Ii
I
.
I:
I'·
I!
S~I"l'~115=Ei=Emw"E' =a~'~ ;,1
~
1-'
I
10
to'
10'
"1,
'I
I'll
I
I
Ie (mAl
, II
:1.'
,/
0.2
.!'
10-1
2/2
':1
,Ii'
':1
; I' i: i!
, I ,
I,,:,;.
. ',
,I
I
'i: 1'1:11
hF£=10 11':
I" "
10.1
to
10'
to'ldmAI
BC460 BC461 MEDIUM POWER AMPLIFIER DESCRIPTION The BC460 and BC461 are silicon planar epitaxial PNP transistors in TO-39 metal case. They are intended for general purpose applications, especially for driver stages. The complementary NPN types are respectively the BC440 and BC441 .
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
:::4:
B
E
ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
BC460
BC461
Unit
- 50
-70
V
Collector-emitter Voltage (IB
- 40
- 60
V
VCER
Collector-emitter Voltage (RBE ,,; 100 0)
- 50
-70
V
VEBO
Emitter-base Voltage (Ic
VCBO VCEO(SUS)
Collector-base Voltage (I E
= 0)
ICM
Collector Peak Current
Ptot
Total Power Dissipation at T amb ,,; 25°C at T case"; 25°C
-5
V
-2
A
1 10
W W
T stg
Storage Temperature
- 65 to 200
°C
Tj
Junction Temperature
200
°C
October 1988
1/2
93
BC460-BC461 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
17.5 175
ELECTRICAL CHARACTERISTICS (T case = 25 OC unless otherwise specified) Symbol
Parameter
V(BR) EBO
VCE VBE
(sat)
(sat)
hFE
. . .
.
For BC460 For BC461
- 100 -10 -10
VCE = - 50 V VCE=-70V
IE =-100j.lA
Collector-emitter Breakdown Voltage (IB = 0)
Ic =- 10 mA
For BC460 For BC461
Collector-emitter Saturation Voltage
Ic =- 1 A
IB =- 100 mA
- 1
Base-emitter Saturation Voltage
Ic =- 1 A
IB =- 100 mA
- 1.5
-5 - 40 - 60
V V V
Gr.4
Ic =- 500 mA VCE =-4 V Ic =- 500 mA VCE=-4V Ic =- 500 mA VCE=-4V Ic =- 1 A VCE=-2V (for BC460 only) Ic =- 50 mA
40
70
60
130
115
250
20
VCE=-4V
50
MHz
= 300 l1s. duty cycle = 1 %.
DC Normalized Current Gain.
Collector-emitter Saturation Voltage.
h",,,-rn-nm---,rrnll"" '!II"TIIT~~~"-,'\'!m, ,'I
. , Ih ?V+''!i-' ---H-H+f!+-t+t4+Jjl--+++H~ H++H++I--'
I--
H
- 'h,•• r-'"TTmIlTTr II TTl"TTT1T"Tl11TTTT"....,--rmmr...,-j'i'1'i'm ( V) r---t+!i1t,tit!--'-tt-"f"---:-t,-i-l*ltt-i-tt-ttlti!
••.
~~~-~ ~~~~!t-cr~~~~~
0.81--,-++'lin i+-'''Ef h, ..;-=.-·t~O_-+c..I-+!+--+H++'+tf-+++++llII Ii;
;! , I
II' "
,
.....
0.6
-r; Ii ,
I
, ,.
I,i
, ,
0.4
1
1111 1111
94
*,#---'--'-'+I+1t-t+Httti,I-HI-t+ttttIt
I-- i,~)-tt'ii--+,
"'1
illi
2/2
*'+i!t--+-H+tttl
1
! :
10-1
j:
r---t+m1+--+tp~~ HfHiit--t' 1:
~.
j.lA
J.lA
V
Transition frequency
• Pulsed: pulse duration
Unit
V
Gr.6
05
Max.
nA
Gr.5
15
Typ.
Emitter Base Breakdown Voltage (Ie = 0)
DC Current Gain
fT
Min.
VCB=-40V
Collector Cutoff Current (RBE = 100 0)
ICER
V(BR) CEO
Test Conditions
Collector Cutoff Current (IE = 0)
ICBo
to
,1'1
,III
'J-W
1111
10'
103 -Ie (mA)
10-1
,',
,
' ,'I 10
I
IV 'I!II 10'
10' -lc(mA)
BC477 BC478-BC479 LOW NOISE GENERAL PURPOSE AUDIO AMPLIFIERS DESCRIPTION The BC477, BC478 and BC479 are silicon planar epitaxial PNP transistors in TO-18 metal case. The BC477 is a high voltage type designed for use in audio amplifiers or driver stages, and in the signal processing circuits of TV sets. The BC478 and BC479 are respectively low noise and very low noise types, designed for general preamplifier or amplifier applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
:: ~: ABSOLUTE MAXIMUM RATINGS Symbol VCES
Collector-emitter Voltage (VSE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
Ic Ptot
Value
Parameter
~
~
~
0)
0)
0)
Collector Current Total Power Dissipation at T amb 0; 25 'C at T case 0; 25°C
Unit
BC477
BC478
BC479
- 90
- 40
- 40
V
- 80
- 40
- 40
V
-6
V
- 150
mA
0.36 1.2
W W
T stg
Storage Temperature
- 55 to 200
°C
Tj
Junction Temperature
200
°C
January 1989
1/5
95
BC477-BC478-BC479 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
t46 485
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
lEBo V(BR)CES
V(BR)CEO
V(BR)EBO
VCE(sa!)
VBE
.
VBE(sa!)
hFE
.
Parameter Collector Cutoff Current (VBE = 0)
ICEs
. .
Test Conditions
Emitter-cutoff Current (Ic = 0)
V EB = - 4 V
Collector-emitter Breakdown Voltage (VBE = 0)
Ic=-10~
Collector-emitter Breakdown Voltage (IB = 0)
Ic = - 5 mA
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10~A
Collector-emitter Saturation Voltage
Ic IB Ic IB
Base-emitter Voltage
Ic = 2 mA
Base-emitter Saturation Voltage
Ic = - 10 mA IB = - 0.5 mA Ic = - 100 mA IB=-5mA
DC Current Gain
Ic=-10~
Ic = - 10 mA
Small Signal Current Gain
Ic = - 2 mA f = 1 kHz
Ic=-10mA f = 20 MHz • Pulsed: pulse duration = 300 ~s, duty cycle = 1 %.
2/5
96
Typ.
Max.
Unit
- 10 -10
nA ~
-10 -10
nA ~ nA
-10
for BC477 for BC478 for BC479
- 90 - 40 - 40
V V V
for BC477 for BC478 for BC479
- 80 - 40 - 40
V V V
-6
V
=- 10 mA =- 0.5 mA =-100 mA = - 5 mA
Ic = - 2 mA
hIe
Min.
for BC477 VCE = - 70 V VCE =-70V T amb = 125 'C for BC479·BC478 VCE =-30V VCE =-30V T amb = 125 'C
- 0.1
- 0.25
- 0.3 VCE=-5V
- 0.55
V
- 0.65
- 0.75
V
- 0.75
- 0.9
V V
- 0.9 VCE=-5V for BC477 for BC478 for BC479 VCE=-5V for BC477 for BC478 for BC 479 VCE=-5V for BC477 for BC478 for BC479
30 50 100
115 195 290
110 110 200
250 450
160 270 350
VCE=-5V for BC477 for BC478 for BC479 VCE =-5 V
V
125 125 220
260 500
7.5
BC477-BC478-BC479 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter
Test Conditions
Min.
CeBo
Collector-base Capacitance
IE
~
0
CEBO
Emitter-base Capacitance
Ie
~
0
NF
Noise Figure
Ie ~ - 20~A VeE~-5V Rg ~ 10kQ I ~ 10Hz to 10kHz B ~ 15.7 kHz lor BC479
NF
Noise Figure
Ie ~ - 200 ~A VeE~-5V Rg ~ 2 kQ I ~ 10Hz to 10kHz B ~ 15.7 kHz lor BC478 lor BC479 Ic ~ - 20~A VeE~-5V Rg ~ 10 kQ I ~ 1 kHz B ~ 200 Hz lor BC479 Ie ~ - 200 ~A VeE~-5V Rg ~ 2 kQ I ~ 1 kHz B ~ 200 Hz lor BC477 lor BC478 lor BC479
Typ.
Max.
Unit
4
6
pF
11
15
pF
0.8
3.5
dB
1.5 1
4
dB dB
0.5
2.5
dB
2 1.2 0.8
10 6 4
dB dB dB
VCB~-5V
VEB
~
- 0.5 V
• Pulsed: pulse duration = 300 fls, duty cycle = 1 %.
Collector-emitter Saturation Voltage.
Collector Cutoff Current.
(V)
,
-I CSO
-VCE(sat )
(,lolA.)
111111
~ := BC478
VCE =-30Y
f--
VCE
8(477
le-2Ol e
0.'
~
8C479
VCE,,-70V
/
=-30V
/
0.3
/
0.2
.
I---
0.1
V 10
10 2 -'C(mA)
25
50
75
3/5
97
BC477-BC478-BC479 Collector-base Capacitance.
Transition Frequency. G-J226
Cceo
'T
,--
(pF)
(MHz)
IE =0 ...-
10
I
!
\
1-:---
I
f
\ \
.-f--- -
-
.t--
/
160
120
\
,
\
-
-
-.-
-
-
80
I
,
--
- --
40
/
I VeE =-5V
2
10
20
15
-Vea
R9
'\
10
"'
-"ffi'\1\
_L
~~ ~ "-
R9 (kill
·IX
'"
IdB
4
5
-
-
"
"'- i'3
,
r-
,.
, II,
,.
-Ie (rnA)
:1'\: ..
r·
VeE =.:sv f = 1 kHz B =2OOHz
6
~ j\.
1+
~1\
IdB
./
J
:~ ,
,I"-
"-
, ,
VeE =-5V f =lkHz
BTn
,
10'
,
:~ 10
2
2
Noise Figure (for BC478 only).
f-
1<--
,. 10
G_3221
, ,
,
(V 1
Noise Figure (for BC477 only). (kfl)
1
__ V'
......... r-.!
2
3
+...
~
,.
-.....: 10- 2
, "10-'
,
10-1
,.
-IC(mA)
Noise Figure (for BC479 only).
~r-10-2
Noise Figure (for BC479 only). G 3230
R9 (kIl.)ij
..
"
6
"~
VCE =-5V
f:l0Hz 1010kHz B =15.7 kHz
........
I'-..
10
" ,
.........
I
i'.4
'"
3
l/
dB
...........
"-
3
.r--
" , ,
2
rr-
3
4 6
~
-- .
"
-le(mA)
4/5
98
BC477-BC478-BC479 Noise Figure vs. Frequency (for BC479 only).
Power Rating Chart. G_J232
G 3231
NF
Plot
(dB)
111111111
(WI
llllll~
L
VeE =-5V Rg =2kO Ie =-lOO}JA
1\
~~
()'B
'''1--<;-
1:-10.8
\
~?~
~'-
().4
"II€. f! <4/~ 0.1
10
10'
IO J
10'
105
t (Hz)
50
100
ISO
200 lamb (.()
5/5
99
BCY58 BCY59 LOW NOISE AUDIO AMPLIFIERS DESCRIPTION The BCY58 and BCY59 are silicon planar epitaxial NPN transistors in Jedec TO-18 metal case, They are intended for use in audio input stages, driver stages and low-noise input stages, The complementary PNP types are respectively the BCY78 and BCY79,
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
:~:
Br"-.
NPN
E
ABSOLUTE MAXIMUM RATINGS Value
Symbol
Parameter
BCY58
BCY59
Unit
VCES
Collector-emitter Voltage (VBE = 0)
32
45
V
VCEo
Collector-emitter Voltage (Is = 0)
32
45
V
VESO
Emitter-base Voltage (Ic = 0)
Ic Is Ptot T stg , Tj January 1989
Collector Current Base Current Total Power Dissipation at T amb ,; 25 'C at T case'; 45°C Storage and Junction Temperature
7
V
200
mA
50
mA
0,39 1
mW W
- 65 to 200
°C 1/4
101
BCY58-BCY59 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICES
ICEX
Parameter Collector Cutoff Current (VSE = 0)
Collector Cutoff Current (VBE = - 0.2 V)
Test Conditions For BCY58 VCE=32V VcE =32V For BCY59 VCE=45V VCE=45V For BCY58 VcE =32V For BCY59 VCE =45 V
Max.
Unit
Tamb = 150°C
0.1 0.1
10 10
~A
Tamb = 150°C
0.1 0.1
10 10
nA ~
Tamb = 100°C
20
~
Tamb = 100°C
20
~ nA
VES = 5 V
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 2 mA
(SR)ESO *
Emitter-base Breakdown Voltage (Ic = 0)
IE =10 ~
VCE(sat) *
Collector-Emitter Saturation Voltage
Ic = 10 mA Ic = 100 mA
IB = 0.25 mA IB =2.5 mA
Base-emitter Voltage
Ic = 2 mA Ic = 100 mA
VCE = 5 V VCE = 1 V
Base-emitter Saturation Voltage
Ic = 10 mA Ic = 100 mA
Is = 0.25 mA Is = 2.5 mA
DC Current Gain
Ic =10~
VCE = 5 V Gr.VII Gr.VIII Gr.IX Gr.X VCE = 5 V Gr.VII Gr.VIII Gr.IX GrX VCE = 1 V GrVIl Gr.VIII Gr.IX Gr.X VCE =1 V Gr.VII Gr.VIII Gr.IX GrX
V(BR)CEO *
VBE VSE(satl* hFE *
Ic = 2 mA
Ic =10 mA
Ic =100 mA
*
Typ.
Emitter cutoff Current (Ic = 0)
lEBO
Pulsed: pulse duration = 300 I's, duty cycle = 1 %.
2/4
102
Min.
10 For BCY58 For BCY59
nA
32 45
V V
7
V 0.12 0.4
0.35 0.7
V V
0.55
0.65 0.75
0.7
V V
0.6 0.75
0.7 0.9
0.85 1.2
V V
195 100 140 195 280 350 170 250 350 500 365 175 260 365 520
630 220 310 460 630
20 40 100 120 120 180 250 380 80 80 120 160 240 40 40 45 60 60
BCY58-BCY59 ELECTRICAL CHARACTERISTICS (continued) Symbol hie
Parameter
Test Conditions
Small Signal Current Gain
Ie = 2 mA f = 1 kHz
Min.
Transition Frequency
Ie =10 mA 1= 100 MHz
VeE = 5 V
C EBO
Emitter-base Capacitance
Ie = 0 1=1 MHz
VEB = 0.5 V
C CBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
NF
Noise Figure
Ic =0.2 mA Rg = 2 kQ
VCE = 5 V 1=1 kHz
ton
Turn-on Time
Ic = 10 mA IB1 = 1 mA Ie = 100 mA IB1 = 10 mA
Vcc=10V
toll
Turn-off Time
Pulsed: pulse duration
DC Current Gain.
=
300 .us. duty cycle
Unit
250 350 500 700 200
MHz
11
15
pF
3.5
6
pF
2
6
dB
85
150
ns
55
150
ns
480
800
ns
480
800
ns
Vcc = 10 V
Ic = 10 mA Vcc=10V IB1 =-IB2=1mA Ie = 100 mA Vee=10V IB1 =-IB2=10mA =
Max.
125 125 175 250 350
Gr.VII Gr.VIII Gr.IX Gr.X
IT
Typ.
VeE = 5 V
t %.
Collector-emitter Saturation Voltage. VCE(sat)
(v)
8
A
6
, 1
,~ 8
I
lie ,,"OIB'i
II
~
lCI Tam~ "100J5C Q
l.I
J-
6
, ,
-50·C
1
i '0
3/4
103
BCY58-BCY59 Transition Frequency.
Collector-base Capacitance. G 1849
'T
G 3171
CCBO (pF)
(MHz) VCE =5V
200
fO
/"
!
I
I 6 1\
'E
1/
,
I'\.
I
r"'h. .
I
100
10
Noise Figure (f
,-I'-.
.I
I!i'\.'
.=
1\
""
'r
'"
1\."
4
4
,
TT, "
",-' Noise Figure (f
+-r1 10-2
10
2
,
3
,
'"
4
~
"[
I
, "
TI ~~
!--.
10- 1
I
Ie (rnA)
I
11111111
~
~N;:
'i~1I
VeE" Rg= 2kfi Ie = 200,uA
6 -
K
1
f'
4
2
veE =5V
f _10kHz,
"llklHIIIII
i5
~rnJ
G -J> 75
NF (dB)
6
,
B
I
Noise Figure vs. Frequency.
t=-
-"
"'" 'r" ,
5
T"j..,
4
6 8
I
4
10. 1
r-i
[I' i*...'t--,..
10-1 L-...L.-LlJ.llLlL...-L~!UlJ~...J......L:l"",,"lJJ
104
,
G-
:~r-1"
4/4
VeE = SV f :::lkHz
2
= 10kHz).
(kM '~-
,
mlK~
j...
Ie (rnA)
,
," ,
~f'
'Rr
,
~5":::;;;
,
~'\*
I'
i'........ "
,"
B= 20Hz
IT
,,-
I\.
fdB
" '~t'\ ,
3
6~~:E'~~tl
Rg
fO
,
'['\1' "
t\-
2 .
t--...."
= 1 kHz).
" ,-" k.:
(kO)
"
r......:-... '''"''I'-.
25 VeerV)
20
15
G-3173
Rg
+-t
I"Ir 'fdB"
,
G·3171
,
,'10
fO
= 100 Hz).
."
,
'
rm~ 2H=f_ ---"
1 1
80
-~-
t-!~
•
,
I
~. 4
I
,
Rg (kO)
+=1_
,0
,
I
G
I
e-/ -+--1
Noise Figure (f
-
~
y.
IGO
120
I
I
f:100MHz
160
140
I
6 B
lC(mA)
0
10
ill -:'11 SCiS-niOMSON ~U©iiI@rn~rn©1i'iiI@IllIl©@
10'
lOS
f(Hz)
BCY70 BCY71/BCY72 GENERAL PURPOSE APPLICATIONS DESCRIPTION The BCY70, BCY71 and BCY72 are silicon planar epitaxial PNP transistors in Jedec TO-18 metal case.
TO-18
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Symbol VCBO
Collector-base Voltage (I E = 0)
VCEO
Collector-emitter Voltage
V E80
Emitter-base Voltage (Ic = 0)
•
(18
= 0)
ICM
Collector Peak Current
Ptot
Total Power Dissipation at T amb
T stg , Tj
:s
Storage and Junction Temperature
Pulsed: pulse duration
October 1988
Value
Parameter
25°C
Unit
BCY70
BCY71
BCY72
- 50
- 45
- 25
V
- 40
- 45
- 25
V
-5
V
- 200
mA
350
mW
- 65 to 200
'C
= 300 fls. duty cycle = 1 %. 1/5
105
BCY70-BCY71-BCY72 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
IESO VCE(sat)' VBE(satl
hFE
,
Parameter Collector Cutoff Current (VBE = 0)
ICES
,
Test Conditions
VES =-5 V
Collector-emitter Saturation Voltage
Ic =- 10 mA Ic =- 50 mA
Base-Emitter Saturation Voltage
Ic = - 10 mA IB =- 1 mA For BCY70 and BCY71 Only IB = - 5 mA Ic =- 50 mA For BCY70 Ic=-0.1mA Ic =- 1 mA Ic=-10mA Ic =- 50 mA For BCY71 Ic =- 0.01 mA Ic =- 0.1 mA Ic =- 1 mA Ic =- 10 mA Ic =- 50 mA For BCY72 Ic=-1 mA Ic =- 10 mA
Is = - 1 mA IB =- 5 mA
40 45 50 15
VCE = - 1 V VCE = - 1 V VCE = - 1 V VCE=-1V VCE=-1V
80 90 100 15
VCE=-1V VCE = - 1 V
40 50
Small Signal Current Gain (lor BCY71 only)
Ic =- 1 mA 1=1 kHz
VCE=-10V
h
Transition Frequency
Ic =- 0.1 mA 1= 10.7 MHz
VCE=-20V
- 100 -10
JlA
nA
nA
-10
JlA JlA
- 0.25 - 0.5
V V
- 0.9 - 1.2
V V
60
100
600
400
250 200
MHz MHz
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=-10V
106
nA nA
For BCY70 For BCY70 and BCY72 VEB = - 1 V
2/5
-10 - 500
MHz
Ic = 0 1=1 MHz
duty cycle = 1 %.
Unit
15
Emitter-base Capacitance
~s,
Max.
For BCY71 VCE=-20V
CESO
Pulsed: pulse duration = 300
- 0.6
VCE = - 1 V VCE =- 1 V VCE =- 1 V VCE=-1V
hIe
Ic =- 10 mA 1= 100 MHz
•
Typ.
- 100 -10
Emitter cutoff Current (Ic = 0)
DC Current Gain
Min.
For BCY70 VCE = - 20 V VCE = - 50 V For BCY71 VcB =-20V VCB = - 45 V For BCY72 VCB = - 20 V Ves = - 25 V
8
pF pF
6
BCV70-BCV71-BCV72 ELECTRICAL CHARACTERISTICS (continued) Symbol NF
hie hre hoe td tr ts t, ton toll •
Parameter
Min.
Test Conditions
Noise Figure
Typ.
Max.
Unit
6 2
dB
Ic =- 0.1 mA VCE=-5V Rg = 2 kQ f = 10 to 10 000 Hz For BCY70 and BCY72 for BCY71
Input Impedance (for BCY71 only)
Ic =- 1 mA f = 1 kHz
VCE = - 10 V
Reverse Voltage Ratio (for BCY71 only)
Ic=-1 mA f = 1kHz
VCE=-10V
Output Admittance (for BCY71 only)
Ic =- 1 mA f = 1 kHz
VCE = - 10 V
Delay Time (for BCY70 and BCY72 only)
Ic = - 10 mA 181 =- 1 mA
VEE = 3 V
Rise Time (for BCY70 and BCY72 only)
Ic =- 10 mA 181 =- 1 mA
VEE = 3 V
Storage Time (for BCY70 and BCY72 only)
kQ 2
12 20x10- 4 ~S
10
60 ns 23
35
25
35
Ic = - 10 mA VEE = 3 V 181 =-182=-1 mA
270
350
Fall Time (for BCY70 and BCY72 only)
Ic =- 10 mA VEE = 3 V 181 =-182 =-1 mA
50
80
Turn-on Time (for BCY70 and BCY72 only)
Ic = - 10 mA 181 =- 1 mA
48
65
Turn-off Time (for BCY70 and BCY72 only)
Ic=-10mA VEE = 3 V 181 =- 182 =-1 mA
320
420
Pulsed: pulse duration
dB
ns ns ns ns
VEE = 3 V
ns
= 300 fl.s, duty cycle = 1 %.
TEST CIRCUIT Test Circuit for Switching Times.
VEE = 3.0V
Vi
o----J I-~---{=r~+-f<" ,
-20v~1f lf1S-J 1-
Vo I ,
I
ltd! t r
ton ,--,
I
I
-
-10-'.
:.!3-:l1.:
I
1-·-1
:~:
I
5- 4 615
:
I
I
5-4616
3/5
107
BCY70-BCY71-BCY72 Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage. G·2018
)
-VBE(sat )
"FE .-to
(v)
hFE =10
t.2
Tam b=125-Y
I
to'
,
~ ...V'
Tam b=-5S·C
0.8
~
~
0.6
,
0.4
:i
ill ,
to- ,
-
V
125-C
0.2
.
,
to
10. 1
10
G 1851
G 1850
'T (MHz ) VCE =-20V
VeE =-1
/BCn(
V /
f=lOOMHz
150 BCV71
300
>-n >-n BCY
100
50
II
/
//
200
BeV71
BeY7
V
/ /
BCY72
/
I-""
1// /
100 2
468
10- 2
2
'10- 1
10
4" -Ie (rnA)
Collector-base Capacitance.
to
Equivalent Input Noise Voltage (for BCY71 only). G 1853
G 1852
CCBO (pF)
,; VCE =-5V
\ \
"
I
II
i'-
-
to
r-r--_
10
20
I
i
---I i I I I
,
I
II
I
!
-10 ....
......
30
+f-t' I
I ,
i
I.
-lOrnA
-100).lA
-.......
II IIII-,m I
108
i
IE= , I)JA
\..
4/5
+!
d
t=IMHz
,
i
Ii
I
Ii I
.-
! 10
,
I f (kHz)
BCV1O-BCV71-BCV72 Equivalent Input Noise Current (for BCY71 only).
Countours of Constant White Noise Figure (for BCY71 only).
/11:•• SGS·ntOMSON •J.
5/5
IlIilUi:Iii@~tw:'ii'IiiI@001IC1ll
109
I I I I I I I I I I
I I I I
I I I I I I I I I I I I I I
I I I
I I I I
I I I I I I I I I I
I I I I
I I I
I I I I I I I I I I I
I
BCY78 BCY79 LOW NOISE AUDIO AMPLIFIERS DESCRIPTION The BCY78 and BCY79 are silicon planar epitaxial PNP transistors in Jedec TO-18 metal case.They are designed for use in audio driver and low-noise input stages. The complementary NPN types are respectively the BCY58 and BCY59.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
::-~r
80--+£
NPN
E
3_6896
ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
BCY78
BCY79
Unit
VCES
Collector-emitter Voltage (VSE
- 32
- 45
V
VCEO
Collector-emitter Voltage (Is
- 32
- 45
V
VESO
Emitter-base Voltage (Ic
Ic Is
P'o' Ts,g, Tj October 1988
= 0)
-5
V
Collector Current
- 200
mA
Base Current
- 20
mA
Total Power Dissipation at T amb ,,; 25°C at T case ,,; 45°C
390 1
mW W
- 65 to 200
°C
Storage and Junction Temperature
1/5
111
BCV78-BCV79 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
lEBo V(BR)CES
V(BR)CEO
.
V(BR)EBO VCE(sat) VBE
*
.
.
VBE(Sat)
.
112
For BCY78 VCE=-32V For BCY79 VCE = - 45 V
Emitter Cutoff Current (Ic = 0)
VEB = - 4 V
Collector-emitter Breakdown Voltage (VBE = 0)
Ic=-10flA
Collector-emitter Breakdown Voltage (IB = 0)
Max.
Unit
-2
- 20 - 100 - 10
nA nA flA
-2 T amb = 150 'C
- 20 - 100 -10
nA nA flA
T amb = 100°C
- 20
flA
T amb = 100°C
- 20
flA
T amb
Min.
= 150 'C
- 20
- 32 - 45
V V
For BCY78 For BCY79
- 32 - 45
V V
Ic =-2 mA
IE = - 1 flA
Collector-emitter Saturation Voltage
I c =-10mA Ic =- 100 mA
IB = - 0.25 mA IB =- 2.5 mA
Base-emitter Voltage
Ic=-10flA Ic =- 2 mA Ic=-10mA Ic =-100 mA
VCE VCE VCE VCE
Base-emitter Saturation Voltage
Ic=-10mA Ic =- 100 mA
IB = - 0.25 mA IB = - 2.5 mA
=
300 J1,s, duty cycle
=
nA
For BCY78 For BCY79
Emitter-base Breakdown Voltage (Ic = 0)
Pulsed: pulse duration
2/5
For BCY78 VCE=-25V VCE=-32V VCE =-25 V For BCY79 VCE=-35V VCE=-45V VCE=-35V
Collector Cutoff Current (VBE = 0.2 V)
IcEX
Typ.
Test Conditions
Collector Cutoff Current (VBE = 0)
ICEs
1 %.
V
-5
= = = =
-5V -5V - 1 V -1V
- 0.12 - 0.25 - 0.4 - 0.8
V V
0.55 0.65 - 0.75 0.68 0.75
V V V V
- 0.7 - 0.85 - 0.85 - 1.2
V V
- 0.6 - 0.6 - 0.7
BCY78-BCY79 ELECTRICAL CHARACTERISTICS (continued) Symbol hFE
.
Parameter DC Current Gain
Test Conditions Ic=-10~A
Ic = - 2 mA
Ic =-10mA
Ic =- 100 mA
Min.
Typ.
30 40
140 200 270
120 180 250
170 250 350
220 310 460
80 120 160
180 260 360
400 630
100 380 240 60
340 500 500
630 1000
Gr.VII Gr.vlll Gr.IX
125 175 250
200 260 330
250 350 500
Gr.X
350
520
700
VCE=-5V Gr.VII Gr.VIII Gr.IX VCE=-5V Gr.VII Gr.VIII Gr.IX VCE = - 1 V Gr.VII Gr.VIIi Gr.IX VCE=-1V Gr.vll Gr.VIII Gr.IX
Max.
Unit
40 45 60
For BCY78 Only Ic Ic Ic Ic hfe
Small Signal Current Gain
====-
0.01 mA 2 mA 10 mA 100 mA
Ic =- 2 mA 1=1 kHz
lor BCY78
Gr.x VCE=-5V VCE=-5V VCE = - 1 V VCE=-1V VCE=-5V
Only
Transition Frequency
Ic =- 10 mA 1= 100 MHz
VCE = - 5 V
CEBO
Emitter-base CapaCitance
Ic = 0 1=1 MHz
VEB = - 0.5 V
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=-10V
NF
Noise Figure
Ic =- 0.2 mA Rg = 2 kQ
VCE=-5V 1=1 kHz
hie
Input Impedance
Ic =- 2 mA 1=1 kHz
VC E=-5V
IT
180
MHz
11
15
pF
4.5
7
pF
2
6
dB
Gr.VII Gr.VIII Gr.IX
2.7 3.6 4.5
kQ kQ kQ
Gr.X
7.5
kQ
For BCY78 Only hre
Reverse Voltage Ratio
Ic =- 2 mA 1=1 kHz
VcE =-5V Gr.VII Gr.VIII Gr.lX
For BCY78 Only Gr.x •
1.5xl0-' 2xl0-' 2xl0-' 3xl0-'
Pulsed: pulse duration = 300 lls. duly cycle = 1 %.
3/5
113
BCY78-BCY79 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter
Test Conditions
Output Admittance
hoe
Ie =- 2 mA f = 1 kHz
Min.
Typ.
Max.
Unit
Gr.VII Gr.VIII Gr.IX
18 24 30
30 50 60
j.!S j.!S j.!S
Gr.X
50
100
j.!S
VeE =-5V
For BCY78 Only Delay Time
td
Rise Time
tr
Storage Time
ts
•
Pulsed: pulse duration
Vee=-10V
Ie = - 10 mA 181 =- 1 mA Ie = - 100 mA 181 =-10mA
Turn-off Time
toff
Ie =- 10 mA 181 =- 1 mA Ie =- 100 mA 181 =- 10 mA
35
ns
5
ns
50
ns
50
ns
400
ns
250
ns
80
ns
200
ns
Vee=-10V
Vee=-10V
Ie =- 10 mA Vee =- 10 V 181 =-182 =-1 mA Ie =- 100 mA Vee=-10V 181 =-1 82 =-10 mA
Turn-on Time
ton
Vee=-10V
Ie =- 10 mA Vee =- 10 V 181 =-182 =-1 mA Ie =- 100 mA Vee =- 10 V 181 =-1 82 =-10 mA
Fall Time
tf
Ie =- 10 mA 181 =- 1 mA Ie =- 100 mA 181 =- 10 mA
Vee = - 10 V 85
150
ns
55
150
ns
480
800
ns
450
800
ns
Vee=-10V
Ie =- 10 mA Vee=-10V 181=-182=-1 mA Ie =- 100 mA Vee=-10V 181 =-182 =-10 mA
= 300 ~s, duty cycle = 1 %.
Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage. G 185(\
)
-VSE Isat)r--,-,-,-TTT1rn--.--rr-rrrm----,----,;:.O-iT'''i'm' (v)
hFE =40 1,2
0 .•
hFE ::40
0.6
0.. 1---+-t+Htttl---+-+++t+Ht----+--t:.i-H'!fltl 0.4
0.6
1-++++l+IIF=t:=t=!--l+\-Il1---+++-I+1+Il
0.4
1---+-t+Htttl---+-+++t+Ht----+-Hf-tH-IH
0.2
1---+-t+Htt-H---+-+++t+Ht----+-Hf-tH-IH
0.2
-~ 10-'
4/5
114
10
10
BCV78-BCV79 DC Current Gain.
Normalized h Parameters.
.,
.,
b-l-I,I VCE=-1V
4
600
601860
-
MkHztVCE ,,-5V
500
IBcv 78Y
400
,
I'-..
.,
79IX P"" ~ IX,Bey ...,..".
300 200
r-
BCV78VUI BCV 79 VIlI
r-
BCV"18VII,BCY79V1l
1111111 1111111 1111111
100
i'-
h,.
~ /"
h,.
Jj
;,;. I
10- 1
III
Noise Figure (f = 1 kHz). G 3175
Rg'~~~ii~~~~~~~~~1
(kfil'
I
,I IJ!!II I
I! . VCE=5V Rg = 2kll Ie = 200,uA
\
Ii-
,
1111111 1111111 1111111
11111111
.......
,./
Noise Figure vs. Frequency. NF (dBl
"
h;
I,'
"
10: ~
"'-I
Ii"
,11:
I N.' 'X """-.
5, '
~~I:~U '(I l~i"1\~',' 1dB-
6
•
,
2
I
1 10
102
10'
105
f(Hz)
5/5
115
BF257 B F258- B F259 HIGH VOLTAGE VIDEO AMPLIFIERS DESCRIPTION The BF257, BF258 and BF259 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case. They are particularly designed for video output stages in CTV and MTV sets, class A audio output stages and drivers for horizontal deflection circuits.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Parameter
Unit
BF257 BF258 BF259 VCBO
Collector-base Voltage (IE = 0)
160
250
300
V
VCEO
Collector-emitter Voltage (lB = 0)
160
250
300
V
VEBO
Emitter-base Voltage (Ic = 0)
Ic
Collector Current
ICM
Collector Peak Current
Ptot
Total Power Dissipation at T amb
T stg Ti October 1988
50°C
5
V
100
mA
200
mA
5
W
Storage Temperature
- 55 to 200
Junction Temperature
200
°C DC
0;
1/3
117
BF257-BF258-BF259 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
30 175
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
VIBR) CBO
VIBR)CEO
.
VIBR) EBO
VCE Isat)
.
Min.
Typ.
Max.
Unit
50 50 50
nA nA nA
VCB=100V VCB =200 V VCB =250 V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 ~
for BF257 for BF258 for BF259
160 250 300
V V V
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 10 mA
for BF257 for BF258 for BF259
160 250 300
V V V
Emittter-base Breakdown Voltage (Ic = 0)
IE=100~A
5
V
Collector-emitter Saturation Voltage
Ic = 30 mA
IB = 6 mA
1
DC Current Gain
Ic = 30 mA
VCE=10V
fT
Transition Frequency
Ic=15mA
VCE =10 V
C re
Reverse Capacitance
Ic = 0 f = 1 MHz
VCE = 30 V
hFE
*
.
Test Conditions for BF257 for BF258 for BF259
Collector Cutoff Current (IE = 0)
ICBo
Pulsed: pulse duration
=
300 ps, duty cycle
=
V
25 90
MHz
3
pF
1 %.
DC Current Gain.
---+--+-+-+++H+---+--+-t-t-,---t1
0 .• ;-,
60
'~1'<"-5:' ..-t-I1-t-1H+!--1-H+-I-c----+i 60
04
1 r------ir----r--H---t-t-Ht----+--+-+-t+,'/-r; fi
veE _lOY 20
, 10
2/3
118
IC(mA)
10
..
klinA)
10'
BF257-BF258-BF259 Collector Cutoff Current.
50
25
Collector-base Capacitance .
100
75
125
..
T.('CI
Transition Frequency.
10
veB
(V)
Power Rating Chart. RoO ,.....,-,--,-,--,,--,-r-r,--,-,--,,--,-,,-.!p!'j"-,
'1 ; CMHz)i-++-1-++-++-f-++-t-t-+' jCE=toV f-+-f--,f-++-1f-++-t-t-+-t I f= 20 ItoIiz
toOH+l-. r--t-ti" 50
t-T
+P""-=t-.
'
i-
(W)
f-++-f-+-f--,H-+-1-t-+-t-t-+-t-++-t-+-l
,j
-+'-c,f-++-t--l
f-+fH--+t--+-++y ...L~J t+ -+-'- H . '-i-fLt-+-1--:--+-++-f-++r-i'--I-H ,~ I
,
I
!
' +,+' f-++-f-++-1f-++-1-t10
20
i
30
~1Jt~ iIJ
'clmA)
o
~~~~LL~LL~LL~LL~~
o
40
80
Safe Operating Area.
10
1=~=r==t=If.:+#j:j.F--:.::"''''
__
I---~--~~t--l-+-~~'--I-++i-+t-1-
_ _ (BF257) 1Ie,0 ISO -::-::<~_I-+++-+t+HH IBF256) Ve•o 250V(BF2591 'ho JOIV(-----H-H 10
10'
Ye• IV)
10'
3/3
119
I I
I I I I I
I I I
I I I
I I
I I I I I I I
I I I
I I I
I I
I I I
I I I I
I I I
I I I
I I
I I I
I I I I
I I I
I I I
I I
I I I
I I I I
I I I
I
I I
BF457 BF458-BF459 HIGH VOLTAGE VIDEO AMPLIFIERS DESCRIPTION The BF457, BF458 and BF459 are silicon planar epitaxial N PN transistors in Jedec TO-126 plastic package. They are particularly intended for use as video output stages in colour and black and white TV receivers, class A output stages and drivers for horizontal deflection circuits. These transistors have been studied in order to guarantee the maximum resistance against flash over.
TO-126
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Parameter
Unit
BF 457 BF 458 BF 459 VCBO
Collector-base Voltage (I E = 0)
160
250
300
V
VCEO
Collector-emitter Voltage (IB = 0)
160
250
300
V
VEBO ICM
Emitter-base Voltage (Ic = 0) Collector Peak Current
IBM
Base Peak Current
Ptot
Total Power Dissipation at T amb T case
25°C S 25 'C
S
5
V
300
mA
50
mA
1.25 12.5
W W
T stg
Storage Temperature
- 55 to 150
°C
Tj
Junction Temperature
150
'C
January 1989
1/3
121
BF457-BF458-BF459 THERMAL DATA 10 100
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Symbol
V(SR)CEO *
V(BR) EBO VCE
(sat) *
hFE *
*
Test Conditions
Parameter Collector Cutoff Current (IE = 0)
Icso
Collector-emitter Breakdown Voltage (Is = 0)
Min.
for SF 457 for SF 458 for SF 459
Vcs=100V Vcs = 200 V Vcs = 250 V
Ic=10mA
for SF 457 for SF 458 for SF 459
Emittter·base Breakdown Voltage (Ic = 0)
IE = 100 IlA
Collector·emitter Saturation Voltage
Ic =50 mA
Typ.
Max.
Unit
50 50 50
nA nA nA
160 250 300
V V V
5
V 1
IB = 10 mA
DC Current Gain
Ic = 30 mA
VcE =10V
fT
Transition Frequency
Ic = 30 mA
VCE=10V
90
MHz
C re
Reverse Capacitance
Ic = 0 f = 1 MHz
VCE =30 V
4
pF
C oe
Output Capacitance
Ic = 0 f = 1 MHz
VCE = 30 V
5
pF
Pulsed: pulse duration
=
300 fls, duty cycle
=
30
V
80
t %.
DC Current Gain,
Collector-emitter Saturation Voltage. G-1411
VCE(sat)r-~,...,,--'rn"~-'---'''''-n-i-rn (v)
tOO
[
.,
f-VeE= 10 v
50
,/
V
~+to
2/3
122
I----~I----H-+Hj-++-~_+__++-t++-t-ij
BF457-BF458-BF459 Transition Frequency.
Output and Reverse Capacitance.
'T (MHz)
150
fOO
1 --
1 L+
10
20
30
3/3
123
BF657 BF658-BF659 MEDIUM POWER VIDEO AMPLIFIERS DESCRIPTION The BF657, BF658 and BF659 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case. They are particularly designed for application with precision "IN-LINE" large screen CRT (thermal resis-tance ~ 20 ° C/W).
TO-39
INTERNAL SCHEMATIC DIAGRAM
c 6(}--+1::' NPN
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Parameter
Unit
BF657 BF658 BF659 Vcso
Collector· base Voltage (IE = 0)
160
250
300
VCEO
Collector-emitter Voltage (Is = 0)
160
250
300
VEso
Emitter-base Voltage (Ic = 0)
V V
5
V
Collector Current
100
mA
ICM
Collector Peak Current
200
mA
Ptot
Total Power Dissipation at T case at T case
7 3
W W
Ic
OS; OS;
60°C 140°C
Tstg
Storage Temperature
- 55 to 200
°C
Tj
Junction Temperature
200
°C
January 1989
1/3
125
BF657-BF658-BF659 Collector Cutoff Current.
Collector-base and Reverse Capacitances . ... (...J,----,----,_._~~.,...-_._--,----r~r¥'i~ (V)
o.el---I--+-H-H-H+-·0.61---+--++-I+i+t1-----I-+-r-+++++I 0.4 1--+-I---l--.J-I.-I-J.l1----l-----+-+--l--~(.l.j
0.2 1--+--I---l--.J-I.-I-J.l1--+.AC+--l--i-+jf+j
6
25
50
75
100
Transition Frequency.
•
10
,
(MHz)>-l--l-l-l-l-l--l-l.....l..W-l-1--k Ll.J ~--l--+-~--l--+-~--l--+-~~~E~DV I
G 1621,/1
Ie
'T
1...
(mAl
,"
Ie MAX (CONTINUOUS) ~
'~20 MHz .
e
Tease =60· C'
I I
!
i
10
VeEO "AX ~ 160V
~
BF658 VCEO MAX", 250 V -
BF659 VCEO MAX::: 3aOv
126
20
30
40
'e(mAl
10
II I! I!
II II
I BF651
H-
I
I
,
3/3
10 2
Safe Operating Areas. G-141J
10
..
lc{mAI
II
II
BF657-BF658-BF659 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
20 175
Max Max
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Symbol ICBo
VIBRICBO
VIBRI CEO *
Min.
Typ.
Max.
Unit
50 50 50
nA nA nA
for BF657 for BF658 for BF659
VCB=100V VCB =200 V VCB=250V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100!lA
for BF657 for BF658 for BF659
160 250 300
V V V
Collector-emittter Breakdown Voltage (IB = 0)
Ic=10mA
for BF657 for BF658 for BF659
160 250 300
V V V
5
V
VIBRI EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100!lA
VCE Isatl *
Collector-emitter Saturation Voltage
Ic = 30 mA
1
IB = 6 mA
V
25
DC Current Gain
Ic = 30 mA
VCE =10V
fT
Transition Frequency
Ic=15mA
VCE=10V
90
MHz
C re
Reverse Capacitance
Ic = 0 f = 1 MHz
VCE =30 V
3
pF
hFE *
*
Test Conditions
Parameter Collector Cutoff Current (IE = 0)
Pulsed: pulse duration
=
300
~s,
duty cycle
=
1 %.
Collector-emitter Saturation Voltage.
DC Current Gain. G 1623/1
)
80
./ 60
40
-
I
-
0·8 Ic~ .~
0.6
,.,
-
5 Ie
-I
1
---,-
.
~
0.4 VCE =10V
0.2
20
, , 10
Ie
.
(mA)
_.
•10
V
,
..
lc(mAJ
10 2
2/3
127
BFR17 LOW-LEVEL, LOW-NOISE, VERY HIGH GAIN AMPLIFIER DESCRIPTION The BFR17 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case, designed for use in high performance low level, low noise amplifier applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCES
Collector-emitter Voltage (VBE = 0)
60
V
VCEO
Collector-emitter Voltage (IB = 0)
60
V
VEBO
Emitter-base Voltage (Ic = 0)
Ic P tot T stg , TJ
Parameter
Collector Current Total Power Dissipation at T 8mb = 25°C at T case = 25°C Storage and Junction Temperature
November 1988
8
V
50
mA
0.36 1.2
W W
- 55 to 200
°C
1/3
129
BFR17 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
0.1 0.1
20 20
nA J.(A
0.1
20
nA
Collector Cutoff Current (VBE = 0)
VCE=50V VCE=50V
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
Collector-emitter Breakdown Voltage (IB = 0)
Ic=10mA
60
V
V(BR)CES
Collector-emitter Breakdown Voltage (VBE = 0)
Ic=10J.(A
60
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=10J.(A
8
V
VCE(sa!)
Collector-emitter Saturation Voltage
Ic = 1 mA
IB =0.1 mA
0.15
0.35
V
Base-emitter Voltage
Ic = 1 mA Ic=100J.(A
VCE = 5 V VCE = 5 V
0.64 0.58
0.7
V V
DC Current Gain
Ic=10J.(A Ic=100J.(A Ic =1 mA Ic =10 mA
VCE VCE VCE VCE
hIe
Small Signal Current Gain
Ic =1 mA 1=20 kHz
VCE =5 V
IT
Transition Frequency
Ic =1 mA 1= 20 MHz
VCE =5 V
CCBO
Collector-base Capacitance
IE = 0
VCB = 5 V
3.5
6
pF
CEBO
Emitter-base Capacitance
Ic = 0
VEB = 5 V
3.5
6
pF
Noise Figure
Ic=10J.(A Rg = 10 kQ 1=10Hzto10kHz 1=1 kHz 1=10kHz
1.8 1 1
4 3 3
dB dB dB
ICES lEBO V(BR)CEO
. .
VBE hFE
NF
.
.
hie
Input Impedance
hoe
Output Admittance
hr.
Reverse Voltage Ratio
• Pulsed: pulse duration = 300IJ-S. duty cycle = 1%.
2/3
130
Ic =1 mA 1=1 kHz
Tamb = 150°C
=5 =5 =5 =5
V V V V
VCE =5 V
VCE =5 V
130 220 450
220 300 530 530 530
70
100
MHz
10
kQ
20
I1S
4.SX 10-4
BFR17 Noise Figure vs. Source Resistance.
Collector-base Capacitance.
G-2057
G 2056
CCaG
NF I VCE~5V {dS),----'
\ \
(pF )
'I
n
B=lS.7kHz
"-
\.
~'\ ~
t-- l- t--
~
f=1MHz
"
11 V
""'
-
30" .....
-'1
-.::::
= 10kHz.
Contours of Constant Noise Figure f
Contours of Constant Noise Figure f
RO
i
6
NF=ld8:,
~
\\.
-i--'-
-i-i I!-! dB
II
"
,
10- 1
i
VeE
I
I
\.
i
!
,0
il ' :
:i 5dB
4d'1--'-+-
6dS:
:
I
I
=5V
" _
II
,Wi-
3dS
. . . . N-4.l" ' ,'l1.lL--.8;! .1'- tJ. iii'
["'...:
f=TOkHz B = 2 kHz
. ,.
I
i
,
"1_[
Ii
N ~ I,
RO {kill
.p,
~
.1m,. ~illil] '1"i"tt1"
'0'
= 1kHz. G- 2062
G 2063
\.
;01-"
-H-ittT
'0
12
(kft)
,
lC=100PA
-
:---.. r-
,.
r
I--10- 1
~
,
=
VCE 5V f kHz B =20 OHz
=,
, ,
.
10
I
"'1i~D4 j'6dS i i '
--l
BdB
,
,
I, I
i
!
f-7'l--
I
, ,
.i i T 11lli, .,. '0'
IC{"Al
3/3
131
BFR18 HIGH-VOLTAGE, HIGH-CURRENT AMPLIFIER DESCRIPTION The BFR18 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. This device is designed for amplifier applications over a wide range of voltage and current.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
V CES
Collector-emitter Voltage (VBE
VCEO
Collector-emitter Voltage (IB
VEBO Ic
P tot T stg , Tj
Emitter-base Voltage (Ic
=0
)
= 0)
= 0)
Collector Current Total Power Dissipation at T amb :> 25°C at T case:> 25°C Storage and Junction Temperature
November 1988
Value
Unit
85
V
55
V
7
V
1
A
0.5 1.8
W W
- 55 to 200
°C 1/3
133
BFR18 THERMAL DATA 97 350
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS(T amb = 25 'C unless otherwise specified) Parameter
Symbol
Test Conditions
Min.
Typ.
Max.
Unit
0.2 0.2
10 10
nA j.lA
0.1
10
nA
ICES
Collector Cutoff Current (VSE = 0)
VcE =60V VCE = 60 V
IESO
Emitter Cutoff Current (Ic = 0)
VES = 5 V
Collector-emitter Breakdown Voltage (VSE = 0)
Ic = 100 j.lA
85
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =30 mA
55
V
V(SR) ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 j.lA
7
V
VCE(sat)
Collector-emitter Saturation Voltage
Ic=150mA Ic = 500 mA Ic = 1 A
Is = 15 mA Is =50 mA Is = 0.1 A
0.13 0.3 0.65
Base-emitter Voltage
Ic = 10 mA
VCE = 1 V
0.66
Base-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA Ic = 1 A
Is=15mA Is =50 mA Is = 0.1 A
0.85 1.1 1.35
DC Current Gain
Ic=100j.lA Ic=10mA Ic=150mA Ic = 500 mA Ic = 150 mA Tamb =- 55°C
VCE VCE VCE VCE VCE
V(SR) CES V(SR) CEO
.
VBE
VSE(sat)
hFE
.
.
. .
T amb = 150°C
= = = = =
1 1 1 1 1
V V V V V
30 70 60 30
0.25 1
V V V V
1 1.6
75 120 90 45
V V V
180 180
15
hIe
Small Signal Current Gain
Ic = 1 mA 1=1 kHz
VCE = 5 V
IT
Transition Frequency
Ic =50 mA 1= 20 MHz
VCE=10V
CESO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEs=0.5V
50
80
pF
Ccso
Collector-base Capacitance
IE = 0 1=1 MHz
VCB =10V
12
20
pF
NF
Noise Figure
Ic = 30 j.lA Rg = 1 kQ
VCE=10V f = 1 kHz
2
8
dB
hie
Input Impedance
Ic = 1 mA 1=1 kHz
VCE= 5 V
hre
Reverse Voltage Ratio
Ic = 1 mA 1=1 kHz
VCE = 5 V
hoe
Output Admitance
Ic = 1 mA 1=1 kHz
• Pulsed: pulse duration
2/3
134
= 300~,
duty cycle
=
1%.
VCE = 5 V
120 60
MHz
90
kQ
2.2 2.4x1
cf
8.5
4
/lS
BFR18 Collector-emitter Saturation Voltage. VCE(sat) (V)
. ~\cC;i~wt,
J
r-
'I
II I
:~
-55-C
,-
H
10-1
II !W I;
Ulli'Iii::::: l !( -
-
II
"-
~
4-
;~ 25.C
I --
I
~I
1-,)
~ _~ I
II'
I
-
I
'1
III'..
Ie-
,
125-C 'I ______ !
-
iii: , , ..
i j
___
LI
-
,
,
l ~+~I
, r-
Base-emitter Saturation Voltage. G-3113
, ,Ii
, ,
..ill
10 2
10
.. !
, ,
'(mA)
Collector-base Capacitance.
High Frequency Current Gain. G 3115
(CBO (pF)
! I,
i I VeE 10V
IE = 0
----c.
=
,/
t =20MHz
40
I
L I
30
20
1\
/'
/
\
V
,,~ 10
I
, 10
20
30
40
Ves (\J)
,
8
10
.
6 8 Ie (mA)
3/3
135
BFR36 CATV ULTRA-LINEAR HIGH GAIN TRANSISTOR DESCRIPTION The BFR36 is a multi-emitter silicon planar epitaxial N PN transistor in Jedec TO-39 metal case. It is designed for CATV-MATV amplifier applications over a wide frequency range (40 to 860M Hz). The device features very good intermodulation properties, very low reverse capacitance, high power gain and high power dissipation.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
= 0) Collector-Emitter Voltage (IB = 0) Emitter-base Voltage (Ie = 0)
40
V
30
V
3
V
Collector Current
200
mA
ICM
Collector Peak Current
400
mA
Ptot
Total Power Dissipation at T amb " 40 DC at T case" 50 DC
0.8 5
W W
- 55 to 200
DC
VCBO VCEO VEBO Ie
T stg , Ti
Parameter Collector-base Voltage (I E
Storage and Junction Temperature
November 1988
1/5
137
BFR36 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
30 200
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBO V(SR)CBO VCEO(sus)
.
V(SR)ESO
..
Test Conditions
Min.
Typ.
Max.
Unit
150 20
J.!A
Collector Cutoff Current (IE = 0)
Vcs=20V VCB =20 V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 j.lA
40
V
Collector-emitter Sustaining Voltage (IB = 0)
Ic = 10 mA
30
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100
3
V
Tamb = 150°C
J.!A
750
mV
Collector-emitter Knee Voltage
Ic = 100 mA
VBE
Base-emitter Voltage
Ic = 70 mA
VCE = 5 V
hFE
DC Current Gain
Ic = 70 mA Ic=150mA Ic = 70 mA Ic = 150 mA
VCE = 5 V VCE = 5 V VCE=15V VCE=15V
60 60 65 65
130
Transition Frequency
VCE=15V
1=100MHz Ic = 70 mA Ic = 150 mA
1
1.4 1.2
GHz GHz
7
pF
VCEK
.
IT
700
nA
CESO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VES = 0.4 V
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs = 15 V
C re
Reverse Capacitance
Ic = 0 1=1 MHz
VCE = 15 V
NF
Noise Figure
VCE=15V 1=200 MHz
Rg = 50 Q
G pe
Po
(1)
Power Gain (see test circuit)
Ic = 70 mA
Output Power (see test circuit)
Ic =70 mA
• Pulsed: pulse duration = 300~s, duty cycle = 1%. • • 19 = Value corresponding to Ie = 11 OmA and VeE = 1V. (1) Output VSMR < 2, d;m = - 30dB@ f = 2 (fq - fp), fp = 798MHz and fq
2/5
138
mV
750
1.7
3
pF
2.2
pF
Ic =30 mA Ic = 70 mA
4 4.5
dB dB
VCE =18V 1= 200 MHz 1= 500 MHz 1= 800 MHz
16 9.5 6.5
dB dB dB
150 90
mW mW
VCE = 18 V f = 200 MHz 1=800 MHz
= 802M Hz.
130 70
BFR36 TEST CIRCUIT RF amplifier circuit for power gain test (f
= 200M Hz).
3';'15pF
Rg = 50n
3.;-15 pF
Power Gain vs. Collector Current.
High Frequency Current Gain vs. Collector Current. G 3355
G-335fi
Po
ht.
(dB) VCE =15V
_.
16
. /V
./' 15
--
"-\
14
14
=200 MHz 12
13
2
10
'10 2
'C(mA)
. -
16
VCE =1811
f
.
f =100MHz
/'
V
~
'\
10 10
10 2
Ie (rnA)
3/5
139
BFR36 Reverse Capitance.
Power Rating Chart. G-3358
G lJ57n
c,.
Plot (W)
(pF )
""- i'--~
Ie :0 f=lMHz
- c-- t--
-
\~
'\:, ~;':
~
10
Input Impedance 511e (normalized 50n).
~ \.,
i
r-
~
~
--
.
r-
..-
o-
- -F~E
40
--~ ---
- I - t--
AI
r--
,20
80
~
'60
Forward Transfer Coefficient 521e. 90'
-, Reverse Transfer Coefficient 512e.
-90'
4/5
140
-90"
Output Impedance 522e (normalized 50n).
-,
BFR36 TYPICAL APPLICATIONS CATV-extender line amplifier.
• "V. II
Ikn 200n
15n (}----
Hi"-
tfS
0;6.1=
410
n
1kfij
I
son
!knL
!~~F1 ".":
'--I--'
"
BFR36
I
r..?
"
(~
W
T
1\
4700
j
n
6Bn
r
'~~ 1~,":: I(
~~
BFR36
470n
RT
.1-
6FR36-
t'V'
470n
P.G.;;: 2SdB
dt,.t2=- 61dB
f1=159MHz
dfl-f2 = - 66dB
f2= 57MHz
15n
_~~
·Jio- ~
, ,.?'
~~BFR36 nF
I
l GBn
,on
20ft
~6B .,...n
Second ord~r distortion at YOUT" .4GdBmV
BW-3dB =1O.3SOMH:z:
-.Fl
210n
~
I
non .---= lOnF
I'
r"~: '-n
I IE
( lkfi
~-
JM
lOn
>-6B.b?nF
tkO
n
lOnF 5 -J029
MATV-200MHz channel amplifier.
BFR 38
BFR 38
BFY 90
BFR 36
10pF
3.3
kn
_ _---J.rrv---
Supply Voltage -2411
\/·5.W.R..1N
Cune'fl!. Drd'"
lOO",A.
f?G.
7Od8
V.SWROUT 120mWat
NF
3dB
Pour
Gar. COntrol
drn
-lOdB
~30dB
5/5
141
BFR99
DESCRIPTION The BFR99 is a silicon planar epitaxial PNP transistor in Jedec TO-72 metal case, particularly designed for wide band common-emitter linear amplifier applications up to 1GHz. It features high fT, low reverse capacitance, good cross-modulation properties and low noise.
TO-72
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ic Ptot Tstg , T j October 1988
Parameter
Value
Unit
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
- 25
V
- 25
V
-3
V
Collector Current
- 50
mA
Total Power Dissipation at Tamb ~ 25°C at T case ~ 25°C
225 360
mW mW
- 55 to 200
°C
Collector-base Voltage (IE
Storage and Junction Temperature
1/2
143
BFR99 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
486 777
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Typ.
Max.
Unit
- 100
nA
VCB=-15V
V(BR)CBO
Collector-base Breakdowm Voltage (IE = 0)
Ic=-100~
- 25
V
VCEO(sus) *
Collector-emitter Sustaining Voltage (IB = 0)
Ic =- 5 mA
- 25
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10~
-3
V
VBE
Base-emitter Voltage
Ic=-10mA
VCE=-10V
- 0.75
hFE *
DC Current Gain
Ic =- 1 mA Ic=-10mA Ic =- 20 mA
VCE=-10V VCE=-10V VcE =-10V
75 80
V(BR)EBO
25 20
V
h
Transition Frequency
Ic=-10mA f = 200 MHz
VCE=-15V
2
GHz
C re
Reverse Capacitance
Ic = 0 f = 1 MHz
V cE =-15V
0.4
pF
NF
Noise Figure
Ic =- 3 mA Rg = 50 Q
VCE=-15V
Ic=-10mA Rg = 50 Q
*
Min.
Collector Cutoff Current (IE = 0)
ICBo
Pulsed: pulse duration
2/2
144
= 300(.15, duty cycle = 1%.
f = 200 MHz f = 800 MHz VcE =-15V
2.5 3.5
f = 200 MHz f = 800 MHz
3
4
5
dB dB
dB dB
BFR99A WIDE BAND VHF/UHF AMPLIFIER • SILICON PLANAR EPITAXAL TRANSISTOR • TO-72 METAL CASE • VERY LOW NOISE
APPLICATIONS: • TELECOMMUNICATIONS • WIDE BAND UHF AMPLIFIER • RADIO COMMUNICATIONS
DESCRIPTION The BRF99A is a silicon planar epitaxial PNP transistor produced using interdigitated base emitter geometry. It is particulary designed for use in wide band common-emitter linear amplifiers up to 1GHz. It features very high fr, low reverse capacitance, excelient cross modulation properties and very low noise performance. The BFR99A is complementary to the BFY90. Typical applications include telecommunication and radio communication equipment.
TO-72
INTERNAL SCHEMATIC DIAGRAM
:~: ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO V EBO Ic Ptot T stg , T j
Parameter
Value
Unit
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
- 25
V
- 25
V
-3
V
Collector Current
- 50
mA
Total Power Dissipation at T amb ::; 25 DC at T case::; 25 DC
225 360
mW mW
- 55 to 200
DC
Collector-base Voltage (IE
Storage and Junction Temperature
December 1988
1/5
145
BFR99A THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
486 777
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICBO V(SR) cso
Parameter
Test Conditions
Collector Cutoll Current (IE = 0)
Vcs=-15V
Collector-base Breakdown Voltage (I E = 0)
Ic = - 100
Collector-emitter Sustaining Voltage (Is = 0)
!lA
Min.
Typ.
Max.
Unit
- 100
nA
- 25
V
Ic = - 5 mA
- 25
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10flA
-3
V
Collector-emitter Knee Voltage
Ic =- 20 mA
VSE
Base-emitter Voltage
Ic=-10mA
hFE
DC Current Gain
Ic =- 1 mA Ic=-10mA Ic =- 20 mA
VCEO
(sus)'
V(SR) ESO VCEK
..
.
- 0.8
V
VCE=-10V
- 0.75
V
VCE=-10V VCE=-10V VCE=-10V
25 20
75 80
1.4
IT
Transition Frequency
Ic=-10mA f=100MHz
VCE=-15V
C re
Reverse Capacitance
Ic = 0 1=1 MHz
VCE=-15V
NF
Noise Figure
Ic =- 3 mA
VCE=-15V
2.3
GHz
0.4
pF
Rg = 50 Q
Ic =- 10 mA Rg = 50 Q
G pe Po IS21 el 2
f = 200 MHz 1= 800 MHz VCE=-15V
2.5 3.5
f = 200 MHz f = 800 MHz
3 4
dB dB
Ic =- 10 mA f = 800 MHz
VCE=-15V
10
dB
Output Power
Ic =- 10 mA f = 800 MHz
VCE=-15V
14
mW
Ic=-10mA
VCE=-15V
8
dB
Transcuder Power Gain
• Pulsed: pulse duration = 300;1S, duty cycle = 1% • • 16 = value corresponding to Ie = - 22m A and VeE
146 .
dB dB
Power Gain
Rg = RL = 50 Q 1= 800 MHz
2/5
4 5
= -
tv.
BFR99A Transition Frequency.
'T ,I_ _ r--- r---t-
,
(GHz)
Reverse Capacitance.
IT
t
I
vCE' -15~
,
,
--t-
::::b:(..
VCE=-S
f=1MHz
r---
;;;..-
I ~
-
G 3372
C,.,
(pF)
~t-t.
,
,
'++
-~-t-+I
,
i""-
,
I
,
I I
I
I
'~
[
I
i
.........
!
~
[
.......
I
t--1
-_,
10
Noise Figure vs. Collector Current.
Noise Figure vs. Frequency.
NF~__-.--,-,_,,-rno----,__,G~-~3~3n (dB)
10
-le(mA)
f------+--+-+-t-t-+t-tt------t--1--H,
NF'--'-'-rTTTIT'--'--~"Tn~~
(dB) f---1--H-+t-tttt-----t--+---t-~H_hI_--
--
f-----t------i"g'50JlI++++-----f-----++-1
--+ 1
__
8 r---
~ 8~~~~z
____ ' __
I[
,
.
II [/
11
,
,
-IC CmA)
10
Noise Figure vs. Ambient Temperature.
,.
10
4
6
8
7
f(MHz
10'
Transducer Power Gain. G-Jl76J1
G-JJ7511
15 21.1'
VCE' -15~--f-
25
~4
r---
------,--
0.8 f----,.-,.-,
'~"------~~-.---~
20
------'-~~---:-:--:----=
15
f---..
Ic=-lOmA-t--
f-
'
-n4f--~I----'---+-7------~~4-----~
f------!----7--+--+-+----:-~- -,----i--
10
+
_.-
-~B
-1.2
-so
I
I
--'----T-~ ! i ! i , i-i
I
[
I
so
i-----Li
I
!
TambC-C)
10"'
,
.
, t(GHz)
3/5
147
BFR99A Input Impedance 811e (50n normalized).
Forward Transfer Coefficient 821e. 90'
G-1878
!lBO" 1--+-+-+-+-f-l-!~-f"-----1"---l'''-l
-100"
-90"
Reverse Transfer Coefficient 812e.
Output Impedance 822e (50n normalized). 100"
-90'
Wide Band MATV Amplifier.
BW=40 +860 MHz G = 16dB NF< 5dB
4/5
148
o·
1lS.W.R.IN < 2 y'S.WR.OUT < 2 YOUT =100mY for l·/.Crossmodulation
G-I880
BFR99A MATV Channel Amplifier.
I'''''
fo 0600 MHz s loOdD \'SWR.IN
G
Pcur
~!5mWDdimo30dB
'l~YrIRovr<15
5/5
149
BFW16A BFW17A CATV-MATV AMPLIFIERS DESCRIPTION The BFW 16A and BFW 17A are multi-emitter silicon planar epitaxial NPN transistors in Jedec TO-39 metal case, with extremely good intermodulation properties and high power gain. They are primarily intended for final and driver stages in channel-and band-aerial amplifiers with high output power from 40 to 860 MHz. Another possible application is as the final stage of the wide band vertical amplifier in high speed oscilloscopes.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (I E = 0)
40
V
VCER
Collector-emitter Voltage (RBE " 50 0)
40
V
VCEO
Collector-emitter Voltage (IB = 0)
25
V
VEBO
Emitter-base Voltage (Ic = 0)
3
V
Collector Current
t50
mA
ICM
Collector Peak Current
300
mA
Ptot
Total Power Dissipation at T ambO; 25°C at T case " 125°C
0.7 t.5
W W
- 65 to 200
°C
Ic
T stg , T j
Parameter
Storage and Junction Temperature
December 1988
1/4
151
BFW16A-BFW17A THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBO
Collector Cutoff Current (IE = 0)
VCB=20V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 IlA
Collector-emitter Knee Voltage
Ic = 100 mA
DC Current Gain
Ic = 50 mA Ic = 150 mA
VCE = 5 V VCE = 5 V
Transition Frequency
Ic = 150 mA 1=500 MHz
VCE=15V
.
VCEK*/**
hFE
IT
Test Conditions
Min.
IE = 0 f = 1 MHz
VCB=15V
C re
Reverse Capacitance
Ic = 10 mA f = 1 MHz
VCE =15V
NF
Noise Fig u re (for BFW 16A only)
Ic = 30 mA Rg = 75 Q
VCE=15V f = 200 MHz
G pe
Power Gain (not neutralized)
Ic = 70 mA VCE=18V f = 200 MHz for BFW 16A and BFW 17A 1=800 MHz For BFW 16A only
Output Power
Ic = 70 mA Channel g( 1)
152
V V
25 25
1.2 1.1
GHz GHz
1.7
pF pF
6
dB
16
dB
6,5
dB
130
150 150
mW mW
70
gO
mW
VCE=18V
Channel 62(2) For BFW 16A only
2/4
f.lA
4
for BFW 16A for BFW 17A
• Pulsed: pulse duration = 300 Jls, duty cycle = 1 %, •• 18 = value lor which Ie = 110 rnA at VeE = 1V, (1) Ip = 202 MHz, Iq = 205 MHz, 1(2q _ pi = 208 MHz. (2) Ip = 798 MHz, Iq = 802 MHz, 1(2q _ pi = 806 MHz.
Unit
20
0.75
Collector-base Capacitance
Po
Max.
3
lor BFW 16A lor BFW 17A CCBO
Typ.
T amb = 150 'C
BFW16A-BFW17A TEST CIRCUIT Test Circuit for Power Gain and Output Power Measurements (f = 200 MHz). 3';'15pF
3-:-15 pF
High Frequency Current Gain.
Reverse Capacitance.
-
G 3356
G-335'I1
Cr. ("")
3~1""
-"CE=15Y , =100MHz
16
14
12
/
V
..
...... c----
-
2
r----
IC=-O f=1MHz
-+--+--H
-+-+-++-f"Io.t:t~r- -
~
10
•
8
10
10
Input Impedance Slle (normalized 50 Q).
Forward Transfer Coefficient S21e. 90'
G-JJ69
18cfl-+--+----1-+----f'--'--t"---t"----1L...-t"'---to·
-90'
-1
~ 5G5-ntOMSON 6..,,1 IiIilUICl'II@IlILI!1C'IJ'Ii@OOUlCiI
3/4
153
BFW16A-BFW17A Reverse Transfer Coefficient S12e. 90'
Output Impedance S22e (normalized 50 0). G-3370
.,
4/4
154
BFW43 BFW44 HIGH VOLTAGE AMPLIFIERS DESCRIPTION The BFW43 and BFW44 are silicon planar epitaxial PNP transistors in Jedec TO-18 (BFW43) and Jedec TO-39 (BFW44) metal cases. Both devices are designed for use in amplifiers where high voltage and high gain are necessary. In particular, theyfeature a VCEOof 150 Vand are specified over a wide range of currents.
TO-39
TO-18
INTERNAL SCHEMATIC DIAGRAM
s-
6896
ABSOLUTE MAXIMUM RATINGS Value
Unit
VCBO
Collector-Base Voltage (IE = 0)
-150
V
VCEO
Collector-Emitter Voltage (IB = 0)
-150
V
VEBO
Emitter-Base Voltage (Ic = 0)
Symbol
Ic Ptot
T stg , T j October 1988
Parameter
Collector Current Total Power Dissipation at T amb ::; 25°C for BFW 43 for BFW 44 at T case ::; 25°C for BFW 43 for BFW 44 Storage and Junction Temperature
-6
V
-100
mA
0.4 0.7
W W
1.4 2.5
W W
- 55 to 200
°C 113
155
BFW43-BFW44 THERMAL DATA BFW43 Thermal Resistance Junction-case
Max
125
°C/W
70
°C/W
Rth j-amb
Thermal Resistance Junction-ambient
Max
438
°C/W
250
°C/W
Typ_
Max_
Unit
- 0.2 - 0.03
-10 -10
IlA
ELECTRICAL CHARACTERISITCS(T amb Symbol
Parameter
ICBo
Collector Cutoff Current (IE = 0)
= 25 ac unless otherwise specified) Min_
Test Conditions VCB=-100V VCB=-100V
Tamb = 125°C
nA
Collector-base Breakdown Voltage (IE = 0)
Ic=-101lA
-150
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic=-2mA
- 150
V
V(BR)EBD
Emitter-base Breakdown Voltage (Ic = 0)
IE=-101lA
-6
V
VCE(sat)
Collector-emitter Saturation Voltage
Ic =-10 mA
Base-emitter Saturation Voltage
Ic =- 10 mA
le=-1mA
DC Current Gain
Ic =-1 mA Ic =-10 mA Ic =-10 IlA Tamb =- 55°C
VCE=-10V VCE=-10V VCE=-10V
Transition Frequency
VCE=-10V
f = 20 MHz Ic =-1 mA Ic=-10mA
V(BR)CBO
V(BR)CED
.
VeE (sat) hFE
.
. .
IT CEeD CceD •
BFW44
Rth j-case
Emitter-base Capacitance Collector-base Capacitance
- 0.1
le=-1mA
40 40
- 0.5
V
- 0.74 - 0.9
V
85 100 30
Ic =0 f = 1 MHz
VEe =- 0.5 V
IE =0 f = 1 MHz
Vce =- 5 V
50
MHz MHz
60
pF 20
25
5
7
pF
= 1 %.
Pulsed: pulse duration = 300 Ils, duty cycle
DC Current Gain.
Collector-emitter Saturation Voltage. Go 3137
6-3059
120 100
80
-VCE(sat)
111111111 111111111 111111111
I
Tamb =125:s,.
I
I
ml
""
Ii!t"
1
f"""
-IC=-101 8
0.2
!
-55".Joo 1
I'
0.1
1
,.......... -
0.05
VCE =-10V 20
1111111II
-
10 -Ie (mA)
~ . .."
SGS-THOMSON
~DC~~I!i:'II'II@llIDC$
lamb = -5';;
rt -~
1,
II,
J \1111111
156
J /J
0.15
,..".
,iq
2/3
,
I
25"C
1111 60
II
(V)
..
-
/
12S-
, 1
:/
25"
..
10
, 6. -Ie
(mA)
BFW43-BFW44 Base-emitter Saturation Voltage.
Transition Frequency. G 3138
-VBE(sat)
/I
(VI
Tamb~ 0.8
._-
;;;;00'"1--""
V
0.6 ~
0.4
~
0.2
I--
25-C
125-C
:.t
I-60
l .. -]lllIll.. Jtn',.
, ,
/
I
ij
I
-I C"·101 8
!
40
r-~)' 20
V
, ,
, ,
10
__ I
I
I I
-t-
~
80
V V
'J
(MHz)
41
...... ~
C.3139/1
'T
..... ""
-Ie (mA)
H..
, , 10·'
j
i I
, I,
VCE =-IOV f =20MHz
..
10
+..
, ,
-IC(mA)
3/3
157
BFX37 LOW-LEVEL, LOW-NOISE AMPLIFIER DESCRIPTION The BFX37 is a silicon planar epitaxial PNP transistor in Jedec TO-18 metal case, designed for use in high performance, low-noise amplifiers over a wide frequency range. It features high current gain over the range from 1 ~A to 100 mA and excellent NF at low frequency.
TO-18
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Value
Unit
VCES
Collector-emitter Voltage (VBE = 0)
- 90
V
VCEO
Collector-emitter Voltage (IB = 0)
- 80
V
VEBO
Emitter-base Voltage (Ic = 0)
-6
V
- 100
mA
0.36 1.2
W W
- 55 to 200
'C
Symbol
Ie Ptot T stg , T j
Parameter
Collector Current Total Power Dissipation at T amb oS 25°C at T case oS 25°C Storage and Junction Temperature
November 1988
1/4
159
BFX37 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
ELECTRICAL CHARACTERISTICS(T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
- 0.1 - 0.1
-10 - 10
IlA
- 0.1
- 10
nA
Collector Cutoff Current (VBE = 0)
VCE =-70 V VCE =-70 V
Emitter Cutoff Current (Ic = 0)
VEB =-4 V
Collector-emitter Breakdown Voltage (VBE = 0)
Ic=-1011A
- 90
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =- 5 mA
- 80
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE =-1011A
-6
V
VCE(s.!)
Collector-emitter Saturation Voltage
Ic = - 10 mA Ic =- 50 mA
IB =- 0.5 mA IB =- 5 mA
- 0.1 - 0.15
Base-emitter Voltage
Ic=- 1 mA
VCE=-5V
- 0.65
Base-emitter Saturation Voltage
Ic=-10mA Ic =-50 mA
IB =- 0.5 mA IB =- 5 mA
- 0.73 - 0.82
DC Current Gain
Ic =- 11lA Ic =-1011A Ic=-10011A Ic =- 1 mA Ic=-10mA
VCE=-5V V cE =-5V VCE=-5V VCE=-5V VCE=-5V
ICEs lEBo V(BR)CES V(BR)CEO
VBE VBE(s.t) hFE
.
.
. .
T .mb = 150°C
70 125 125 125
130 170 200 220 200
- 0.25 - 0.4
nA
V V V
- 0.9 - 0.95
V V
230 280
hIe
Small Signal Current Gain
Ic =- 1 mA f = 1 kHz
VCE=-5V
fT
Transition Frequency
Ic =- 0.5 mA f = 20 MHz
VCE=-5V
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VEB =- 0.5 V
12
15
pF
CCBO
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs =- 5 V
4.5
6
pF
Noise Figure
Ic =- 20 IlA VCE = 5 V Rg =10kQ f = 1 kHz f = 10 to 10000 Hz
0.8 1
2.5 3.5
dB dB
NF
160
40
Input Impedance
Ic=-1mA f = 1 kHz
VCE=-5V
6.5
hre
Reverse Voltage Ratio
Ic=-1mA f = 1 kHz
V cE =-5V
2.5x10- 4
hoe
Output Admittance
Ic=-1mA f = 1 kHz
VCE=-5V
15
= 300 flS. duty cycle = 1 'Yo.
~ SIiS·1HOMSON At.., I fiIiilHa::lII@l
MHz
70
hie
• Pulsed: pulse duration
2/4
250
kQ
IlS
BFX37 DC Current Gain.
Collector-emitter Saturation Voltage. G 3181,
-veE{sal )
~J -+1
~~l c e
-
(V)
-l =-101
!
-
0.2
-
0.15
0.1
j
I
0.05
!
I
--1-
L
t ;--1
I
'l'/
lamb =125°(
,-I
,'/
~
2
I
-55·C
,,
,
2
,,
(CBO
j
,--t-
I
1---.
'E ::: 0 1
"' "'I I
/..
'.
t-=--- - r---- 7'
=-5V f::: 1kHz
hj/
./
ht.
.
'r--"
I
I
,,
I
, ,,
2
10-1
, ,,
2
10
--
I
tT (1101Hz)
I
f+
-
r--
IV
V
(, 31S8
10-'
I
(dB)
--
!
I
I~
I
Ij--
I
i
,
VCE =-5V f -ZOMHz
I
I, i
I
(rnA)
,
/
,j..
I,
-Ie
10
VeE =-5V B=1S.7kHz
-
120
Vi
~
, ,
10-2
NF I
I
I--- ~ ,
~
r-- -
Noise Figure vs. Source Resistance. C. 31711
--
, .
-VeB (V)
Transition Frequency.
t- "
11
hi.
,
, ,
1=1"
h~e
"' I"'--.
'-r I
(rnA)
I
f'-....
40
"
-Ie
10 .~
.-
I
BO
2
I
(,3186/1
" VeE
12
'60
'
,
10
t=c-.."
,
1
2
It
Normalized h Parameters.
Collector-base Capacitance.
-
'I
-mt
2S·Cr
Ii,
I
'
10- 1
1
I
I
!
i
I
(pF)
--
t---
_.t-
I, , , 10
II
II,
I
i
6 ,
-Ie (mA)
i'-.. ,"' "'
,/
........
,co-1~"
"-
-2~
~
I 6
-10~A
,
8
10
8
Rg (kfi)
3/4
161
BFX37 Contours of Constant Noise Figure (f = 100 Hz).
Countours of Constant Noise Figure (f = 1 kHz).
Contours of Constant Noise Figure (f = 10kHz).
Noise Figure vs. Frequency.
-
~
I
:\
-
III
10,1 10-3
4/4
162
-Ie
(rnA)
10-5
1O~
10-3
10- 2
10-1
,
f(MHz)
BFX38/BFX39 BFX40/BFX41 HIGH VOLTAGE, GENERAL PURPOSE TYPES DESCRIPTION The BFX38, BFX39, BFX40 and BFX41 are silicon planar epitaxial PNP transistors in Jedec TO-39 metal case, designed for a wide variety of applications. They are particulary useful as complementary drivers (BFY56A is a good complement) in output and switching applications where high voltage and high current are required.
TO-39
INTERNAL SCHEMATIC DIAGRAM
:~: s-
6896
ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
Vcso
Collector-base Voltage (IE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ie
Ic Ptot T stg , Tj
= 0)
BFX40 BFX41
Unit
- 55
- 75
V
- 55
- 75
V
BFX38 BFX39
-5
V
Collector Current
- 1
A
Total Power Dissipation at T amb ,; 25 DC at T case'; 25 DC
0.8 4
W
- 55 to 200
DC
Storage and Junction Temperature
November 1988
1/4
163
BFX38·BFX39·BFX40·BFX41 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
44 219
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Collector Cutoff Current (IE = 0)
Icso
V(SR)CSO
V(SR)CEO
.
Test Conditions
Min.
for BFX38 - BFX39 Vcs=-40V Tamb = 125°C Vcs=-40V for BFX40 - BFX41 Vcs=-50V Vcs =- 50 V Tamb = 125°C
Typ.
Max.
Unit
- 0.2 - 0.25
- 50 - 50
nA ~
- 0.2 - 0.25
- 50 - 50
nA ~
Collector-base Breakdown Voltage (IE = 0)
Ic=-10~
for BFX38 - BFX39 for BFX40 - BFX41
- 55 -75
V V
Collector-emitter Breakdown Voltage (Is = 0)
Ic=-10mA for BFX38 - BFX39 for BFX40 - BFX41
- 55 -75
V V
-5
V
V(SR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10~
VCE(sat)
Collector-emitter Saturation Voltage
Ie =- 150 mA Ie =- 500 mA
Is =-15 mA Is =- 50 mA
- 0.12 - 0.3
- 0.15 - 0.5
V V
Base-emitter Saturation Voltage
Ic=-150mA Ic =- 500 mA
Is=-15mA IB=-50mA
- 0.8 - 0.9
- 0.9 -1.1
V V
DC Current Gain
for BFX38 - BFX40 VCE=-5V Ic=-100~ Ic =-100 mA VCE =- 5 V Ic =- 500 mA VCE=-5V for BFX39 - BFX41 Ic=-100~ VCE=-5V Ic =- 100 mA VCE=-5V Ic =- 500 mA VCE=-5V
. .
VSE (sat) hFE
hFE
.
.
DC Current Gain
Ic =-1 A
VCE=-5V for BFX38 for BFX39 for BFX40 for BFX41 VCE =- 5 V
Ic =- 100 mA Tamb =- 55°C for BFX38 - BFX40 for BFX39 - BFX41
60 85 60
90 130 120
30 40 25
45 70 65
30 15 25 10
30 15
Transition Frequency
Ic =- 50 mA VCE=-10V
f = 100 MHz
CESO
Emitter-base Capacitance
Ic =0 f = 1 MHz
VEB =- 0.5 V
75
120
pF
CCBO
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB =- 0.5 V
15
20
pF
ton
Turn-on Time
Ic =- 500 mA IBt =- 50 mA
Vcc =- 30 V
33
100
ns
fT
..
• Pulsed; pulse duration = 300 ~, duty cycle = 1 %. ** See test circuit.
2/4
164
~ ...."
SGS·ntOMSON ~D©lOO!IiI!.lO©'ii'lRI@IllD~
100
150
MHz
BFX38-BFX39-BFX40-BFX41 ELECTRICAL CHARACTERISTICS (continued) Symbol
Typ.
Max.
Unit
t .. •
Storage Time
Parameter
Ie =- 500 mA Vee =- 30 V IB1 = IB2 = - 50 mA
Test Conditions
160
350
ns
tf"
Fall Time
Ie =- 500 mA Vee =- 30 V IB1 =-I B2 =- 50 mA
27
50
ns
DC Current Gain (for BFX38 and BFX40 only).
Min.
DC Current Gain (for BFX39 and BFX41 only). G_3194
Go 3193
I!i Tamb:12~'CI"'" 1 1;1 i ill II!['.' '; iii I I \ - ~t I i II 25'C It~
hFE -tlllli!~
I
160
120
, _~l
'
80
,,"""1-:1
.a r-
_1
1
I I"
I'
'......
fo""'"'"1
'
lJ
160
,I JVCE =-5V,' II III 1111' II
i
80
~
111
'T._125'C ...... II' ,
JU NJ ffrs·k' ,~~ :" llill i
I-Ht+
I
"
I
I I III 468
10-'
I
!
!ii_ 55,
f-
~H+
40
Illil
Collector-emitter Saturation Voltage.
i,
I
I-
1
I--
10
2
1
rm ! :i
Ii:, I " 11II II '
468
2
468
2
1
I
I
,
I
[I!
468
10 2 -lC(mA)
10
Base-emitter Saturation Voltage. G-3195
I
(V)
I Ill~.
r-:!,, I
[I
I lilli'
I
, II
I
II j
:
120
f-H m
,.
I III !, I
!I.! !I.".VCE =-5V,II ,I 1,',! I ' ::j I I I i I ~i il- -+++tIt1l--+I-H-+t4~-
! I ' 'I
,]I
,11,1 -55'C:,
--L'II
-VCE(sat )
~ !
,I:
CJtttt Tl-ilrn I,!! . II ilil -
hFl)J I 111I 111111111 ,II '
-
,
G 3 96
-YBEfsat) (V)
-IC=-1018 0.8
1.2
Tamb=-SS·s.-
0.6
25-C
0,8
Q4
0.6
lamb = 125.~-=:2 25-C
....t;~
0.2
Q4
~ ?;".c 4
10
•• 10'
I
::::::.
125"<:
1
f-"
!
:=::..t-1 !
-I C,"·101 8
0.2
4
I
,
••
-Ie (rnA)
--
.,.
10
4
, ,
,
4
.,
-Ie (mA)
3/4
165
BFX38-BFX39-BFX40-BFX41 Transition Frequency.
Collector-base Capacitance. 6319711
(pFl
'50
.........
/
,20
-
V
G 3198
-
tcBl'
'T (MHz)
,
--
.-
r--
-!-
i'l. ,
10
II
,
I
80 , I .'
"
40
/
t =100 MHz VeE =_10V
,
II , II
V 4
,
..
4
10
••
4
10'
'II
...
••
~IC(mA)
I ~
I
S'
Test Circuit for ton, ts, and t,.
Vaa=+4.1V
-lOU
VIN
VC C =-30V
...----..JVOUT
l~O.AJ~ 6211
s- 4617 PULSE GENERATOR:
TO OSCILLOSCOPE:
t,. b < 20 ns
t,= 10 ns
PW= 10J.lS
Z'N> 100 KO
Z'N=500 DC<2%
4/4
166
! ! , ;
II
IE =0
II 2
10
. ,!!
III liii 4'
8
-VeB (V)
BFX48 HIGH-FREQUENCY AMPLIFIER DESCRIPTION The BFX48 is a silicon planar epitaxial PNP transistor in Jedec TO-18 metal case. It is suitable for a wide range of applications including low noise, low current high gain RF and wide band pulse amplifiers.
TO-18
INTERNAL SCHEMATIC DIAGRAM
:~: ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VC80
Collector-base Voltage (I E = 0)
- 30
V
VCEO
Collector-emitter Voltage (18 = 0)
- 30
V
VE80
Emitter-base Voltage (Ic = 0)
-5
V
- 100
mA
0.36 1
W W
- 65 to 200
°C
Ic Ptot T stg , Tj
Parameter
Collector Current Total Power Dissipation at T amb ,; 25°C at T case ,; 25°C Storage and Junction Temperature
November 1988
1/3
167
BFX48 THERMAL DATA 175 486
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Min.
Test Conditions
Typ.
Max.
Unit
- 15 -15
nA IlA
Collector Cutoll Current (VBE = 0)
VCE=-20V VCE =- 20 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic =- 1O IlA
- 30
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic = - 10 mA
- 30
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE =-101lA
-5
V
VCE(sat) *
Collector-emitter Saturation Voltage
Ic=-1mA Ic=-10mA Ie =- 50 mA
IB = - 0.1 mA IB =- 1 mA IB =- 5 mA
- 0.1
- 0.13 - 0.14 - 0.3
V V V
Base-emitter Saturation Voltage
Ie =- 1 mA le=-10mA Ie =- 50 mA
IB =-0.1 mA IB =- 1 mA IB=-5mA
- 0.77
- 0.75 - 0.9 -1.1
V V V
DC Current Gain
le=-101lA Ic =-100IlA Ic =- 10 mA Ic =- 50 mA Ic=-10mA Tamb = - 55°C
VCE VCE VCE VCE VCE
Transition Frequency
Ic=-10mA 1= 100 MHz
VcE =-20V
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB = - 0.5 V
4
5.5
pF
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=-10V
2.2
3.5
pF
Noise Figure
Ic =- 1 mA 1= 100 MHz
VCE=-5V Rg = 100 Q
3.5
6
dB
ton
Turn-on Time
Ic =- 50 mA
IB1 =-5 mA
20
50
ns
totl
Turn-off Time
Ic =- 50 mA IB1 =- IB2 =- 5 mA
95
160
ns
Feedback Time Constant
Ic=-10mA 1=80MHz
40
ps
ICES
VBE(sat) *
hFE *
IT
NF
rbb'Cb'c
• Pulsed: pulse duration = 300 1lS, duty cycle = 1 %.
2/3
168
T amb = 125°C
=====-
1 1 1 1 1
V V V V V
40 70 90 20
80 130 160 40
30
VCE=-20V
400
MHz
550
BFX48 Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage. -VBE(sat) .......,TTTTTrrr~-,-TTImr-.,.,-Ti-TiiTI
(v)
hFE =10
1.2
Tamb"'-SS-C
O.
f--- -
~
I-- . f-
12S-C
O.S
0.,
0.2
10-\
to
3/3
169
I I I I I I I I I I I I I I I
I I I I I I I I I I I I I I I I
I I I I I I I I I I I I I I I I
I I I I I
I I I I I I I I I I I
I I I I I
I I I I I I I I I I I I I I I I
I I I I I
I I I I I I I I I I I
I I
BFX73-2N918 2N3600 HIGH-FREQUENCY OSCILLATORS AND AMPLIFIERS The BFX73, 2N918 and 2N3600 are silicon planar epitaxial NPN transistors in Jedec TO-72 metal case. They are designed for low-noise VHF amplifiers, oscillators up to 1 GHz, non-neutralized IF amplifiers and non-saturating circuits with rise and fall times of less than 2.5 ns.
TO·72
INTERNAL SCHEMATIC DIAGRAM
5-6897
ABSOLUTE MAXIMUM RATINGS Symbol VeBo VCEO VESO Ie Ptot T stg , Tj
Parameter
= 0) Collector-emitter Voltage (Is = 0) Emitter-base Voltage (Ie = 0) Collector-base Voltage (IE
Collector Current Total Power Dissipation at T amb " 25°C at T amb " 25°C Storage and Junction Temperature
November 1988
Value
Unit
30
V
15
V
3
V
50
mA
200 300
mW mW
- 65 to 200
°C 1/5
171
BFX73-2N918-2N3600 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
584 875
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Parameter
Symbol
Test Conditions
Min.
Typ.
Max.
Unit
10 1
nA ~
Collector Cutoff Current (IE = 0)
VcB =15V VCB = 15 V Tamb = 150°C
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic =1 ~
30
V
VCEO
Collector-emitter Sustaining Voltage (IB = 0)
Ic = 3 mA
15
V
Emitter-base Breakdown Voltage (Ic = 0)
IE =10 ~
3
V
ICBo
(sus)
V(BR) EBO VCE
(sat)
Collector-emitter Saturation Voltage
Ic = 10 mA IB = 1 mA
0.4
V
VBE
(sat)
Base-emitter Saturation Voltage
Ic = 10 mA IB = 1 mA
1
V
DC Current Gain
Ic = 3 mA
hFE
IT
CEBO
Transition Frequency
Emitter-base Capacitance
Ic = 0 1=1 MHz
600
900
150
850
1.4
1=1 MHz VCE = 0 V VCE =10V
1.8 1
Reverse Capacitance (for 2N3600 only)
Ic = 0 f = 1 MHz
NF
Noise Figure
Ic = 1.5 mA VCE = 6 V Rg = 50 Q f = 200 MHz lor 2N3600 Ic = 1 mA VCE = 6 V Rg = 400 Q f = 60 MHz for 2N918/BFX73 for 2N3600
• See test circuits.
50
lor 2N918/BFX73 lor 2N3600
C re
Power Gain
20 20
MHz
1500
MHz
2
pF pF
3 1.7
pF pF
1
pF
4.5
dB
6 3
dB dB
VEB =0.5 V
IE = 0
G pe
172
lor 2N918/BFX73 Ic = 4 mA VCE=10V 1= 100 MHz lor 2N3600 Ic =5 mA VCE = 6 V 1= 100 MHz
Collector-base Capacitance (for 2N918/BFX73 only)
CCBO
2/5
VCE = 1 V for 2N918/BFX73 lor 2N3600
VCB=10V
Rg = 50 n f = 200 MHz for 2N918/BFX73 Ic = 6 mA VCE =12V for 2N3600 Ic = 5 mA VCE = 6 V
15 17
21
dB 24
dB
BFX73-2N918-2N3600 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter Output Power
Po'
Test Conditions
Min.
Typ.
Ic =12 mA Vcs =10V f = 500MHz for 2N918/BFX73 for 2N3600
30 20
40
It
Collector Efficiency (for 2N918/BFX73 only)
Ic = 12 mA Vcs = 10 V f = 500 MHz
25
rb'b,Cb'c
Feedback Time Constant (for 2N3600 only)
Ic = 5 mA Vcs = 6 V f = 31.9 MHz
4
DC Current Gain.
Max.
Unit
mW mW
% 15
ps
Transition Frequency. G lB13
I
G IS7G
III
JlI
VCE -1Y
80
&mb=loo·C
III
60
40
III
..... ~c
/
III
I 20
v
.......
\
,
\
"'-
-I-
III
~'-.
c ---
I- - - r-r----,---i--
VS,
Collector Current.
--
---1--,---1-+-
20
10
10
Input Admittance
-j--+-+-+I'~d--+J--1 -i-
-55·C .........
III
1-"'"
.- -
1--+-+-+-+---+-++-+-1--+-+-+-+---+-",\---1 I--+-+-+-+---+-++-+-I--+-+-+-+-+--t-
0.5
Forward Transadmittance vs. Collector Current. G 2046
G 2050
)
f::: 101 MHz
''''lOIMHz
VCE·~
BO
VeE:;;'
/" ....... :?'
b~OV VCE
b
g~
V-
"
.......
--
V
'"
60
40
20
~ A ~
~V
V
/J-I10V
VCE"SV 10V
Y. '/
'/ -b
J 8
Ie (rnA)
6
'c(rnA)
3/5
173
BFX73-2N918-2N3600 Reverse Transadmittance vs. Collector Current.
Output Admittance
VS.
Collector Current.
)
f= IQOMHz VCE =5V
1.6
Vo
1.2
f=100 MHz
I--
10V
r-
-
0.8
IVCE=5V -9
0.4
5V
r--
8
.>
..::; ~ f-
l- f- rm;- -
-
-
Ie (rnA)
Forward Transadmittance vs. Frequency.
Input Admittance vs. Frequency.
G-2Q51
1111 I C=5 rnA
)
Ic::5 mA
V E=1O V
25
100
I" 20
9
f----
15
If'
10
~
b
'7
80
"-
60
f----
40
1---1--
--
20
~
1---5
VCE '" IOV
I"
"
.... ~
-b
1
""'- "-
I
9
r
-20 f (MHz)
10'
10
Reverse Transadmittance vs. Frequency.
10
f (MHz)
10'
Output Admittance vs. Frequency. G 2053
II ! l'c· 5mA II VCCIOV
)
I I
)
IC=5 rnA
! i' I I
VCE=lOV
-b
'----
-
1/
-
J --
4/5
174
/
/
i
/'
I
10
I
,
I
-
10'
,/
-9
L H" f (MHz)
-
9 10
10'
f (MHz)
BFX73-2N918-2N3600 Figure 1 : 500 MHz Oscillator Test Circuit.
L1
A-_-+-7-f5~ OUT 1000
pF
220011
I
5-1570
5/5
175
BFX89 BFV90 WIDE BAND VHF/UHF AMPLIFIER • SILICON PLANAR EPITAXIAL TRANSISTORS • TO-72 METAL CASE • VERY LOW NOISE
APPLICATIONS: • TELECOMMUNICATIONS • WIDE BAND UHF AMPLIFIER • RADIO COMMUNICATIONS
TO·72
INTERNAL SCHEMATIC DIAGRAM
DESCRIPTION The BFX89 and BFY90 are silicon planar epitaxial NPN transistors produced using interdigitated base emitter geometry. They are particulary designed for use in wide band common-emitter linear amplifiers up to 1 GHz. They feature very high fT, low reverse capacitance, excellent cross modulation properties and very low noise performance. The BFY90 is complementary to the BFR99A. Typical applications include telecommunication and radio communication equipment.
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCER
Collector-emitter Voltage (RBE " 50 12)
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
Ic
= 0)
= 0)
Collector Current ~
ICM
Collector Peak Current (f
P tot
Total Power Dissipation at T amb
T stg , T j
1 MHz) "
25°C
Storage and Junction Temperature
November 1988
Value
Unit
30
V
30
V
15
V
2.5
V
25
mA
50
mA
200
mW
- 65 to 200
°C
1/4
177
BFX89-BFY90 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
580 880
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICBO VCEK * hFE
Parameter
Test Conditions
Typ.
Unit
Vcs=15V
10
nA
Collector-emitter Knee Voltage
Ic =20 mA
0.75
V
DC Current Gain
Ic = 2 mA
Ic = 25 mA Transition Frequency
IT
Min.
Max.
Collector Cutoll Current (IE = 0)
VCE = 5 V Ic = 2 mA
VCE = 1 V lor BFX89 lor BFY90 VCE = 1 V
150 150 125
20 25 20
1= 500 MHz lor BFX89 lor BFY90
1
1 1.1
GHz GHz
lor BFX89 lor BFY90
1.3
1.2 1.4
GHz GHz
Ic = 25 mA
CCSO(1)
1-------
C re
(2)
NF(2)
Gpo
(2)
Collector-base Capacitance
Reverse Capacitance
Noise Figure
IE = 0 1=1 MHz
Vcs=10V lor BFX89 lor BFY90
Ic = 2 mA 1=1 MHz
VCE = 5 V lor BFX89 lor BFY90
Ic = 2 mA VCE = 5 V Rg = Optimized I = 100 kHz lor BFY90 Only 1= 200 MHz Rg = Optimized lor BFX89 lor BFY90 1= 500 MHz Rg = 50 Q lor BFX89 lor BFY90 1= 800 MHz Rg = Optimized lor BFX89 lor BFY90
Power Gain (not neutralized)
lor BFX89 Ic = 8 mA
lor BFY90 Ic=14mA
18 = value lor which Ie = 22 mA at VeE (1) Shield lead not grounded (2) Shield lead grounded
•
2/4
178
0.6 0.6
=1 V
VCE=10V 1= 200 MHz 1= 800 MHz
3.3 2.5
19
1.7 1.5
pF pF
0.8
pF pF
4
dB
4 3.5
dB dB
6.5 5
dB dB
7 5.5
dB dB
22 7
dB dB
VCE=10V 1= 200 MHz 21 23 1= 800 MHz 8 (3) Ip = 202 MHz, I, = 205 MHz, 1,2,-p) = 208 MHz (4) Ip = 798 MHz, t, = 802 MHz, 1,2,-p) = 806 MHz
dB dB
BFX89-BFY90 ELECTRICAL CHARACTERISTICS (continued) Parameter
Symbol
Test Conditions
Output Power
Po
for BFX89 Ic = 8 mA d ,m =-30dB (3) Channel 9 (4) Channel 62 for BFY90 Ic = 14 mA dim =- 30 dB (3) Channel 9 (4) Channel 62
Min.
Power Rating Chart.
Unit
VCE=10V 6 6
mW mW
12 12
mW mW
VCE=10V 10
(3) fp = 202 MHz, fq = 205 MHz, (4) fp = 798 MHz, fq = 802 MHz,
IB = value for witch Ie = 22 mA at VeE = 1 V (1) Shield lead not grounded (2) Shield lead grounded
Max.
Typ.
= 208 MHz = 806 MHz
Transition Frequency.
(mWJ
300
200
H-......~.......i-++J-
'00 r-t-t-r--t-+-+-+-'-i-1'-.J:--t~d-+-+-+
50
'00
Collector-base Capacitance.
150
T
'Oe)
10
20
30
Ie (rnA)
Noise Figure VS. Collector Current. NF'---'--''-rrr-'---'--'''~Tn (dB)
1(r'
3/4
179
BFX89-BFV90 Forward Transmission Gain vs. Frequency.
Noise Figure vs. Frequency.
G -3336
G-3J41
NF (dB)
2
24
/'c lOmA
20
I\.
/'c~5mA
\
16
-~
fI
\
I\.
12
f------
[--
I
10-'
4/4
180
,,
, , , f(GHz)
", , "-
L
,
II ,II
f (GHz)
BFX90 BFX91 HIGH-VOLTAGE AMPLIFIERS DESCRIPTION The BFX90 and BFX91 are silicon planar epitaxial PNP transistors in JedecTO-18 (BFX90) and Jedec TO-39 (BFX91 ) metal cases. Both devices feature high voltage, high gain, low noise and excellent current gain linearity from 10 ~ to50mA.
T0-18
T0-39
INTERNAL SCHEMATIC DIAGRAM
S_6896
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
-180
V
VCEO
Collector-emitter Voltage (IB = 0)
- 180
V
VEBO Ic Ptot
Emitter-base Voltage (Ie = 0) Collector Current Total Power Dissipation at T amb
at T case
T stg , Tj
25°C for BFX90 for BFX91 " 25°C for BFX90 for BFX91
V mA
0.4 0.7
W W
1.4 2.5
W W
- 55 to 200
°C
"
Storage and Junction Temperature
November 1988
-6 -100
1/5
181
BFX90·BFX91 THERMAL DATA
I Thermal Resistance Junction-case
Rth j-case Rth j-amb
Max Max
Thermal Resistance Junction-ambient
BFX90
BFX91
Unit
125 438
70 250
DC/W DC/W
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Test Conditions
Parameter
Min.
Typ.
Max.
Unit
-10 -10
nA Il A
-10
nA
Collector Cutoff Current (IE = 0)
VCB=-100V VCB=-100V
Emitter Cutoll Current (Ic = 0)
VEB=-4V
Collector-base Breakdown Voltage (IE = 0)
Ic=- 1O IlA
-180
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =- 2 mA
- 180
V
V(BR) EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=-101lA
-6
V
VCE (sat)
Collector-emitter Saturation Voltage
Ic=-10mA
IB =-1 mA
- 0.1
- 0.25
V
Base-emitter Saturation Voltage
Ic =-10 mA
IB =- 1 mA
- 0.74
- 0.9
V
Ic=-101lA Ic=-1 mA Ic=-10mA Ic=-101lA Tamb = - 55 DC Ic=- 1OO IlA Tamb = - 55 DC
VCE=-10V VCE=-10V VcE =-10V VCE=-10V
60 80 80
110 170 200
300
15
60
30
90
ICBO lEBO V(BR) CBO V(BR) CEO
VBE (sat) hFE
.
.
. .
DC Current Gain
T amb = 125 DC
VCE=-10V
hIe
Small Signal Current Gain
Ic=-1 mA 1=1 kHz
VCE=-10V
80
IT
Transition Frequency
Ic =- 1 mA f = 20 MHz
VCE=-10V
40
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VEB =- 0.5 V
CCBO
Collector-base Capacitance
IE = 0 f = 1 MHz
Vr:;B=-5V
Noise Figure
Ic =- 1O IlA Rg = 10 kQ f = 10 kHz f = 1 kHz 1= 100 Hz
NF
182
60
160
MHz
20
25
pF
5
7
pF
1 1 2
3 3 10
dB dB dB
VCE=-5V B = 2 kHz B = 200 Hz B = 20 Hz
hie
Input Impedance
Ic=-1mA 1=1 kHz
VCE=-10V
2.5
12
kQ
hoe
Output Admittance
Ic=-1 mA f = 1 kHz
VCE=-10V
5
25
!LS
• Pulsed: pulse duration = 3001'5, duty cycle
2/5
400
=t
%.
BFX90-BFX91 DC Current Gain.
--+ 240
Collector-emitter Saturation Voltage.
P~~~jtl Tn [- .
200
tiill iItr"
I i
'60
i
II
'ilil
!):V'
1-"" II
I
I :!"!!II
40
,
-55°(% i.
-iT1:",
,m",
: ! ,
,
" 'illl ] ,I
II!!'" . , VI I, i ': I' , 1\1 .1 I I,! ' I Ii' I' , iill , I!,! i III, 11II I Ilii II
/'
80
0.2
25.:>t- 'Ii
~!
Ir" I 1111
v
120
,
III Tamb = 125°( I,/Ii:i'
i-
-
1111 I :11"1 ~ I 1,'1,11
illll! ,Iilll
I
0,15
0.1
,
10-'
10 -'I C (rnA)
Base-emitter Saturation Voltage.
10
-Ie (rnA)
Normalized h Parameters VS. Collector Current. (,_3160/\
-VBE(satl (V)
o.B
0.6
0.4
0.2
10" 10- 1
-Ie
Normalized h Parameters ture.
VS.
Ambient Tempera-
-
VeE =-10V i C=-lmA
0.6
hie
A
~ '/
/ /j II
~
,/
,/ k:;:: '/'
f =lkHz
hoe 0.8
~r
.c..;,..u
L.....-J'--.L.J.....LLl.JJL_-:-~-LlJ.."
10-\
-Ie (rnA)
Emitter-base and Collector-base Capacitances.
/,
_.
'2
(rnA)
'r---
~
..6 ~
~ hoe
-- I--
hie
hf~ and hr~
I-- - I - - I--
'I
0.4
-60
-20
20
60
3/5
183
BFX90-BFX91 Contours of Constant Transition Frequency. -VCE
·,,
Equivalent Input Noise Voltage.
G 3163
(V 1
,
SMHz· 0
0
--~ 80
60
4
--
i~
veE =-5V
r
,
,
· ·
~~
,
, , ," 10-
, ,,
,
...
10
, ,"
Equivalent Input Noise Current.
·
I
,
,
IVc ,,~- 5."
(kn)
• C--
10 1
..... 1:7
Pr~
...... l-~~
" 1'"
Z
ft
:1
aN
I
T --........:
""1"
, ,
Contours of Constant Noise Figure (f
6
Rg (kn)
I
5
.
,
, ,
10
3
4/5
184
-........
.
~
1dB
3' ,...,.. " ~~ N"' J$~ 10-2
:~ l:-
,
-.......
,0
0
10-1
"'-
1"'-;
16
-........
4
t--....' t" e
,
'~' 1'-...
,
= 10kHz). , G - 366
81'si; j'g --" ,...J-+
""-l VeE =-5V f :: 10kHz B =2kHz
4
,
I""":
,~
'dB
4
(rnA)
1(>-
·,
I'
1
-Ie
·, ·
I
~
ZI
G-3167
8=2QOHz
'~
f:::::='s;
Contours of Constant Noise Figure (f = 1 kHz).
VeE =- 5V f ,,1kHz
.-'~=t=
H" f"io.
B =20Hz
10
3166
6
10-1
'~p....
~= -
'-
+
t:::
f ,,100Hz
,
,~
6
VCE=-SV f ",100Hz
llJK
, 1----
10
-Ie (rnA)
G
Rg •
--+-+ :+ I
2
1.
, ,
10- 1
Contours of Constant Noise Figure (f = 100 Hz).
,
Rg
10- 2
(,_3165
(;;) ,
I
I L----.JL-'---1-.LJ....LLLL-_L..-'-LLLU-LJ
1O~
-I C (mA)
!I
1-+ I
2
(kO)
i
I Ii J! LL H------+------..]"~,
f ,,1kHz
10 kHz
,
10-
iii! I
I
~
10"2
,
\
T1
II
I
~-
,'I".
-'c(mA}
,0-
12~
'lEl
~B
~4
6 ""-a .....
I
I II,
J".,
1'--..
-.......
~
.............
!-.....
10-1
I
, ,.
I
-Ie (mA)
BFX90-BFX91 Contours of Constant Wide Band Noise Figure.
Noise Figure
vs. Frequency.
6-31 9
Rg
( kil) e 1-------
.e.-,~
=
,~
""-
"'"'-
VeE .::-5V
B=10Hz to 10kHz
~
G-2065
(dN:)
~
;-~~~- -
2~
16
I
"- 'Z
t-..
K:6"'
R:
K
- I C :-lO,uA. Rg =10kfi
,c""'J __ 1c=_lmA,R g =tkn
"
ok------~4
10-1
-
2dB
r.........
"" ""
_--,~----TIT1II
t'-...t---
r--..
~
~ 10-1
......
t-......
,
..
-Ie (mA)
~
.... , /
10
SGS-ntOMSON
~~!:Iiil@~~~Iiil@IlJ~!:~
10'
10'
5/5
185
BFY50-BFY51 BFY52 MEDIUM-POWER AMPLIFIERS DESCRIPTION The BFY50, BFY51 and BFY52 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case. They are intended for general purpose linear and switching applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter ~
VCBO
Collector-base Voltage (IE
VCEO
Collector-emitter Voltage (Is ~ 0)
V ESO Ic
0)
Emitter-base Voltage (Ic ~ 0) Collector Current
BFY50
BFY51
80 V
60 V
40 V
35 V
30 V
20 V
6V 1A
ICM
Collector Peak Current
1.5 A
Ptot
Total Power Dissipation at T amb ,; 25°C at T case'; 25°C
0.8 W 5W
T stg , T j January 1989
Storage and Junction Temperature
BFY52
- 65 to 200 'C
1/3
187
BFY50-BFY51-BFY52 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
35 218
ELECTRICAL CHARACTERISTICS (T case = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions for BFY50 VCB =60 V VCB = 60 V for BFY51 VCB =40V VCB =40 V for BFY52 VCB = 30 V VCB = 30 V
Collector Cutoff Current (IE = 0)
ICBo
lEBO V(BR)CBO
V(BR)CEO
. .
hfe
T case = 100°C
50 2.5
!JA
T case = 100°C
50 2.5
!JA
T case = 100 'C
50 2.5
!JA
50 2.5
!JA
80 60 40
V V V
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 30 mA
for BFY50 for BFY51 for BFY52
35 30 20
V V V
6
V
IE = 100 ~A IB=15mA for BFY50 for BFY51 and BFY52 Ic = 1 A IB = 0.1 A for BFY50 for BFY51 and BFY52
Base-emitter Saturation Voltage
Ic = 150 mA Ic = 1 A
DC Current Gain
for BFY50 Ic=10mA Ic = 150 mA Ic = 1 A for BFY51 Ic = 10 mA Ic = 150 mA Ic = 1 A for BFY52 Ic = 10 mA Ic = 150 mA Ic = 1 A
Small Signal Current Gain
=
nA
Ic = 150 mA
VCE = 6 V Ic = 1 mA
IB = 15 mA IB = 0.1 A
0.14 0.14
0.2 0.35
V V
0.7 0.7
1 1.6
V V
0.95 1.5
1.3 2
V V
VCE=10V VCE=10V VCE=10V
20 30 15
40 55 30
VCE=10V VCE=10V VCE=10V
30 40 15
55 70 40
VCE=10V VCE =10V VCE =10V
30 60 15
80 130 60
f = 1 kHz for BFY50 for BFY51 for BFY52
25 30 40
for BFY50 for BFY51 for BFY52
45 60 120
t %. ~
a..""'!I 188
nA
for BFY50 for BFY51 for BFY52
Pulsed pulse duration = 300 (.ts, duty cycle
2/3
nA
Ic=100~A
Ic = 10 mA
.
nA
Collector-base Breakdown Voltage (IE = 0)
Collector-emitter Saturation Voltage
hFE *
Unit
T case = 100 °C
VCE(sa!)
.
Max.
VEB = 5 V VEB = 5 V
Emitter-base Breakdown Voltage (Ic = 0)
VBE (sat)
Typ.
Emitter Cutoff Current (Ic = 0)
V(BR)EBO
.
Min_
SGS-THOMSON
U1AJll!:Im@~~I<©ilIm@ll!lll!:@
BFY50-BFY51-BFY52 ELECTRICAL CHARACTERISTICS (continued) Symbol fT
CCBO hie
hre
hoe
Parameter Transition Frequency
Test Conditions Ic = 50 mA
VCE=10V for BFY50 for BFY51 for BFY52
Collector-base Capacitance
IE = 0 f = 1 MHz
VcB =10V
Input Impedance
Ic = 10 mA f = 1 kHz
VCE = 5 V for BFY50 for BFY51 for BFY52
Ic = 10 mA f = 1 kHz
VCE = 5 V for BFY50 for BFY51 for BFY52
Ic = 10 mA f = 1 kHz
VCE = 5 V for BFY50 for BFY51 for BFY52
Reserve Voltage Ratio
Output Admittance
Min.
Typ.
Max.
Unit
60 50 50
100 110 120
MHz MHz MHz
10
pF
180 220 400
Q Q Q
55xl0- 6 70xl0- 6 130x10- 6
30 35 70
IlS IlS IlS
td
Delay Time
Ic=150mA IB1 = 15 mA
Vcc=10V V BE = - 2 V
15
ns
tr
Rise Time
Ic = 150 mA IB1 = 15 mA
Vce=10V VBE = - 2 V
40
ns
ts
Storage Time
le=150mA Vee=10V IB1 =-I B2 = 15 rnA
300
ns
If
Fall Time
Ie = 150 mA Vee=10V IB1 = - IB2 = 15 rnA
60
ns
• Pulsed: pulse duration = 300 flS, duty cycle = 1 %.
3/3
189
BFY56 BFX56A AMPLIFIERS AND SWITCHES DESCRIPTION The BFX56 and BFY56A are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case. They are designed for amplifier and switching applications over a wide range of voltage and current.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
BFY56
BFY56A
Unit
VCES
Collector-emitter Voltage (VSE = 0)
85
85
V
VCEO
Collector-emitter Voltage (Is = 0)
45
55
V
VESO
Emitter-base Voltage (Ic = 0)
7
V
Collector Current
1
A
0.8 5
W W
- 55 to 200
°C
Ic P tot
T stg , Ti
Parameter
Total Power Dissipation at T amb :5 25°C at T case :5 25°C Storage and Junction Temperature
November 1988
1/4
191
BFY56-BFY56A THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
35 2t9
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICES lEBO V(SR)CES
.
Test Conditions
Collector Cutoff Current (VBE = 0)
VCE=50V VCE = 50 V
Emitter Cutoff Current (Ic = 0)
V EB = 5 V
Collector·emitter Breakdown Voltage (VSE = 0)
Ic = 100 IlA
Collector·emitter Breakdown Voltage (I s = 0)
Ic = 30 mA
V(BR)ESO
Emitter·base Breakdown Voltage (Ic = 0)
IE= 1OO IlA
VCE(sa!)
Collector-emitter Saturation Voltage
V(BR)CEO
VSE(sat)
hFE
h,e
IT
.
. .
Base-emitter Saturation Voltage
2/4
192
lor BFY56 Ie = 150 mA Ic = 1 A lor BFY56A Ic = 10 mA Ic = 150 mA Ic = 1 A lor BFY56 Ic =0.1 mA Ic = 500 mA Ie = 150 mA lor BFY56A le=0.1 mA Ic = 5 mA Ic = 150 mA Ic = 500 mA
DC Current Gain
Small Signal Current Gain
Transition Frequency
Pulsed: pulse duration = 300 /is, duty cycle
lor BFY56 Ie = 150 mA Ic = 1 A lor BFY56A Ic 10 mA Ic = 150 mA Ic = 1 A
= 1 %.
Min.
T amb = 150°C
lor BFY56 lor BFY56A
Typ.
Max.
Unit
0.2 0.2
20 20
nA IlA
0.1
20
nA
85
V
45 55
V V
7
V
Is = 15 mA Is=0.1A
0.13 0.65
0.3 1.2
V V
IB = 1 mA Is=15mA Is = 0.1 mA
0.05 0.13 0.65
0.25 1
V V V
Is = 15 mA Is = 0.1 A
0.85 1.5
1.5 2.3
V V
Is = 1 mA Is = 15 mA Is = 0.1 A
0.68 0.85 1.3
0.8 1 1.6
V V V
150
VCE=10V VCE=10V VCE = 1 V
15 20 30
50 55 70
VCE = 1 V VCE = 1 V VCE = 1 V VCE=10V
20 50 40 25
50 85 80 55
Ie = 1 mA 1=1 MHz
VCE = 5 V lor BFY56 lor BFY56A
Ic = 50 mA 1= 20 MHz
VCE= 10V lor BFY56 lor BFY56A
120
60 80 40 60
90 90
MHz MHz
BFY56-BFY56A ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter Emitter-base Capacitance
Ic = a 1=1 MHz
CCBO
Collector-base Capacitance
IE = a 1=1 MHz
Input Impedance
Ic = 1 mA 1=1 kHz
hie
Reverse Voltage Ratio
h re
Min.
Typ.
Max.
Unit
VEB = 0.5 V
50
80
pF
VCB=10V
14
25
pF
VCE = 5 V lor BFY56 lor BFY56A
1.8 2
Test Conditions
CEBO
Ic = 1 mA 1=1 kHz
kQ kQ
2.1x10- 4
VCE = 5 V
• Pulsed: pulse duration = 300 fls. duty cycle = 1 %.
Collector-emitter Saturation Voltage.
DC Current Gain.
!
10- 2
10- 1
V"
10
Base-emitter Saturation Voltage.
10 2 Ie
(rnA)
Emitter-base and Collector-base Capacitances. (; 314811
C (pF)
60
"(ESO Ie= 0
40
..........
,
lit
II I
CCBOIE=O
K
20
I
10
4
6 8
1
4
"
"-
10
I
I 4
6 8
VR (v )
3/4
193
BFY56-BFY56A Transition Frequency.
Normalized h Parameters. G 314911
'T (MHz )
+ ~J
i
60
-----"-i
60
[~_t__
t7
I
V-
I 'J I iii ,I
!
,
-
~~1o=~~~
~~
I
i l-----t- t 10
194
~
-j
l-
I
,
4/4
t1tffi
-
,
20
1--
-l _W'~
/' I-'
40
I c--
i'
,
till 'B
Ie
(mA)
10-1
'---_-L-l_LLLill1_~--'-'-LUll_
10- 1
10
BFY64 HIGH-CURRENT GENERAL PURPOSE TRANSISTOR DESCRIPTION The BFX64 is a silicon planar epitaxial PNP transistor in Jedec TO-39 metal case. It is designed for digital and analog applications at current levels up to 500 mA, line driver, memory applications and in low-noise amplifiers.
TO-39
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Value
Unit
Vcso
Collector-base Voltage (IE = 0)
Parameter
- 40
V
VCEo
Collector-emitter Voltage (Is = 0)
- 40
V
VESO
Emitter-base Voltage (Ic = 0)
-5
V
- 500
mA
0.7
3
W W
- 65 to 200
°C
Symbol
Ic Ptot T stg , Tj
Collector Current Total Power Dissipation at T amb ,; 25°C at T case'; 25°C Storage and Junction Temperature
November 1988
1/4
195
BFY64 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
58 250
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Test Conditions
Parameter
Min_
Typ_
Max.
Unit
Collector Cutoll Current (VBE = 0)
VCE=-25V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic=-10flA
- 40
V(BR)CEO *
Collector-emitter Breakdown Voltage (lB = 0)
Ic =- 10 mA
- 40
V(BR)EBO
Emitter-base Breakdown Voltage (Ie = 0)
IE =-10 flA
-5
VCE(sat) *
Collector-emitter Saturation Voltage
Ic =- 50 mA Ic=-150mA Ic =- 500 mA
IB =- 2.5 mA IB = - 15 mA IB =- 50 mA
- 0.08 - 0.18 - 0.6
- 0.3 - 0.5 - 1.8
V V V
VBE(sat) *
Base-emitter Saturation Voltage
Ic =- 50 mA Ic =-150 mA Ic =- 500 mA
IB =- 2.5 mA IB = - 15 mA IB =- 50 mA
- 0.92 -1
-1.1 -1.4 - 2.2
V V V
DC Current Gain
Ic Ic Ic Ic Ic
VCE=-10V VCE=-10V VCE=-10V VCE =- 1 V VCE=-10V
130 200 200 150 130
ICEs
hFE
* * *
=====-
10 1 10 50 150
flA mA mA mA mA
- 30
80
V V V
hfe
Small Signal Current Gain
Ic=-10mA 1=1 kHz
VCE=-10V
IT
Transition Frequency
Ic =- 50 mA 1=100MHz
VCE =-20V
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB = - 2 V
15
30
CCBo
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=-10V
6
10
NF
Noise Figure
Ic = - 30 flA Rg = 10 kQ
VCE=-5V 1=1 kHz
1
hie
Input Impedance
Ic=-10mA 1=1 kHz
VCE=-10V
1
hre
Reverse Voltage Ratio
Ic=-10mA 1=1 kHz
VCE=-10V
2.4x10- 4
hoe
Output Admittance
Ic=-10mA 1=1 kHz
VCE=-10V
110
ton
Turn-on Time
Ic =- 300 mA IBt = - 30 mA
Vcc=-30V
35
50
toff
Turn-oil Time
Ic =- 300 mA Vcc =- 30 V IS1 =-l s2 =-30mA
70
120
* Pulsed: pulse duration = 300 ~s, duty cycle
2/4 196
= 1 %.
nA
200 200
MHz
250
pF pF dB kQ
lLS ns ns
BFY64 DC Current Gain.
Collector-emitter Saturation Voltage. -VCEfsat) (V)
10- 1
2
10- 3
4 68
2
~ 68
lO"t
2
4 6'
10- 1
2
~ 68
1
2
10
468
2
~
,
1>8
101 -IC CmA)
Base-emitter Saturation Voltage.
..
,
10
..
, 10'
,.
-IC(mA)
Transition Frequency. G-lD"l
I--J"lhF;l'Ec,:';'0'l+ll--l--i-+-i-W+I+-_-I--+-I--Wj~: ; 1.6
1.4
,
I
I
1.2
-;;
1.0
lamb
=-55·C
1O'
J.,..
~
0.8
C;;
100·e
0.6
., ,
0 .•
,
0.2 4
68
1O
, ,
1O
4
10 2
-Ie (rnA)
Emitter-base and Collector-base Capacitances.
10- 1
"
2
4
~
6'
4
10
6
e 10 2
-Ie (mA)
Switching Characteristics.
G-204211
C (pF)
~"~--I--W-W+U--+-I-WI-l+Ill--l--l-I-I-I-I.j4i
16
I.
.......
I
ESO Ie =0
I
I
iii
i i i !I:
"
12 10
CCBO I
,
,.
,0
, I
,.
, 10
,.
-VR (V)
'0
, ,. 10'
-Ie (rnA)
3/4
197
BFY64 Switching Characteristics vs. Ambient Temperature. (ns)
70 60
50 40
30
20
10
4/4
198
Countours of Constant Noise Figure.
BFY76 LOW-LEVEL, LOW-NOISE AMPLIFIER DESCRIPTION The BFY76 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed for use in high performance, low-level, low-noise amplifier circuits from audio to high frequencies.
TQ-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCES
Collector-emitter Voltage (VBE = 0)
60
V
VCEO
Collector-emitter Voltage (IB = 0)
60
V
VEBO
Emitter-base Voltage (Ic = 0)
8
V
Ic Ptot T stg , T j
Parameter
Collector Current Total Power Dissipation at T amb :s; 25°C at T case :s; 25°C Storage and Junction Temperature
January 1989
50
mA
0.36 1.2
W W
- 55 to 200
°C 1/4
199
BFV76 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
Parameter
VCE =50 V VCE =50 V
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
V(BR)CES
Collector-emitter Breakdown Voltage (VBE = 0)
Ic = 10
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
V(BR)EBO VCE(sa!) *
lEBO
Min.
Test Conditions
Collector Cutoll Current (VBE = 0)
ICES
Typ.
Tamb = 150°C
IlA
Max.
Unit
20 20
IlA
20
nA
nA
60
V
Ic = 10 mA
60
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=101lA
8
V
Collector-emitter Saturation Voltage
Ic = 1 mA
IlA
IB =0.1 mA
0.15
0.35
V
0.7
V
VBE
Base-emitter Voltage
Ic = 100
VCE = 5 V
0.5
0.58
hFE *
DC Current Gain
Ic=101lA Ic = 100 IlA Ic = 1 mA Ic = 5 mA
VCE VCE VCE VCE
30
70 120 190 220
= = = =
5 5 5 5
V V V V
150
300
hIe
Small Signal Current Gain
Ic = 1 mA 1=1 kHz
VCE = 5 V
80
220
IT
Transition Frequency
Ic = 1 mA 1= 20 MHz
VCE = 5 V
70
100
CEBO
Emitter-base Capacitance
Ic =0 1=1 MHz
VEB=0.5V
3.5
6
pF
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB = 5 V
3.5
6
pF
Noise Figure
Ic = 10 IlA Rg = 10 kn
VCE = 5 V 1= 100 Hz 1=1 kHz I = 10 to 10 000 Hz
4 1.5 1.9
15 4 4
dB dB dB
NF
hie
Imput Impedance
Ic = 1 mA 1=1 kHz
VCE = 5 V
8
hr.
Reverse Voltage Ratio
Ic =1 mA 1=1 kHz
VCE = 5 V
3xl0-4
hoe
Output Admittance
Ic = 1 mA 1=1 kHz
VCE = 5 V
11
• Pulsed: pulse duration = 300 j.ls, duty cycle = 1 %.
2/4
200
350 MHz
kn
IlS
BFY76 Collector-emitter Saturation Voltage.
DC Current Gain. G-)057
IllIm
hF'
VeE
=5V
!
300
,.1
I
'.'[/
H-+++fHII--+tt'~b='fii~'
I,
,I', I
250
v
I!'il I :~ i 1 !IIII lilli, ! !il,
1iJ!..-
50 :.-- '
o .... 1" 11111 10-3
iii
10-2
'0
10-2 '--P-¥!·~-+-'-!:'-I:'l"'---,f--'cl-'¥i['L--+-'-l-'t'l'
10-2
'e(mA)
10-'
Collector-base capacitance.
High Frequency Current Gain. G 3060
ecao
r-V~E15~1 f =20MHz
'e!mAl
'0
(pF)
/'
6
I----f---
f---
G-3061
I
~-
t-'H---r--r-t-- ---- ~ 0__ f-+t--t--t- f---I-- -
-
-1---- r--
f----f---. f--
-- ---- --1-
II
4
/
L_
I 1
I Normalized h Parameters.
,
..
Ii I '0
IC{mA)
-
--f----
--"'"
--
r---
I--t--'r'.. -- ___ 1--- _'"=~ -f- -
I
I
1--\--+--+--+-+-- I--
!
-=:::r- ~I-
___
I--t--t--t- f--- ----1--1-- - ---
-- r-- f---'0
'5
20
--
r--25 Ves(V)
Contours of Constant Noise Figure (f = 100 kHz).
3/4
201
BFY76 Contours of Constant Noise Figure (f
= 1 kHz).
= 10kHz).
Countours of Constant Noise Figure (f
G 3065
1'\::',
~T-'
Rg (kfl)
:\:\"
.-
~\
" ~:
r-~
.--',;.:
--
~
~
-=6 ,
NF(dB)
10·
NF
)
I
I
~;
VeE'" SV B", 15.7kHz
I
~ I
I
,
!
j !
~'\'
i
"'\ ~
--~
'"
J
II i
l-
202
i
!
NF (dB )
I
,, I
!
I~!
.!
\
Ii
,
.i ",
. i:11
vfl J/!!
-
~
I'
,
I
10
,
l~ ~30"~
", :I~Jo~l In-m , "
Rg(kJ))
i
il
'"
! ~
" c: 1ffiI-,;: . I ,,',
i
rg ~ i~Cnt-~~1
'
IJ
'1
,2
" ;o ,'if
I
G-J073
li~
~: :;z.
,
! ,
!
ICCuA)
I'll IIIIII!IIW
• i IVc'~5v~ i
10
Ie =mo~A1
i
I
4/4
I!
Illn I
T
10'
Noise Figure vs. Frequency.
! "
i~
I , "
1B=rr
G-306S
,
I i
6
10
, :
Ii
I
I
-
III
4
8
10'
Noise Figure vs. Source Resistance. (dB
"' ""-
VeE = 5V f = 10kHz
10
, "
r---!-i--
r3
8
10
--
r\.
-
10
1
k'
r-
-
"-
~
11
_.. '-
1\
.
fJI -
.........
-
P\ f\-
/"
"\.'"
NF(dB) VeE = SV f:: 1KHz B:: 200Hz
--
f--
---
:; Ji
I~at tJ"1 '«
,;
I-S'
! ;
II
I '.
1
'
10
f(MHz)
I i!
BSS26 HIGH -VOLTAGE, HIGH-CURRENT SWITCH DESCRIPTION The BSS 26 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is intended for high voltage, high current switching applications.
TQ-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VBE
VCEo
Collector-emitter Voltage (IB
VEBO Ic Ptot T stg , Tj January 1989
Emitter-base Voltage (Ic
= 0)
= 0)
= 0)
Collector Current Total Power Dissipation at T amb ~ 25°C at T case ~ 25°C Storage and Junction Temperature
Value
Unit
60
V
60
V
40
V
6
V
1
A
0.36 1.2
W W
- 55 to 200
°C 1/4
203
BSS26 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICBO V(BR)CBO
V(BR)CES
V(BR)CEO'
V(BR)EBO
VCE(sat)
VBE(sat)
hFE
.
IT
. .
Parameter
Mln_
Test Conditions
60
V
Collector-emitter Breakdown Voltage (VBE = 0)
Ic =101lA
60
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =10 mA
40
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=101lA
6
V
I
Collector-emitter Saturation Voltage
Ic=100mA Ic = 500 mA 1A Ic =
IB = 10 mA IB =50 mA IB = 0.1 A
Base-emitter Saturation Voltage
Ic = 100 mA Ic = 500 mA 1A Ic =
IB = 10 mA IB =50 mA IB =0.1 A
DC Current Gain
Ic Ic Ic Ic
Transition Frequency
= 10 mA = 100 mA = 500 mA 1A =
Ic = 50 mA
VCE VCE VCE VCE
=1 =1 =1 =5
V V V V
VEB = 0.5 V
CCBO
Collector-base Capacitance
IE = 0 I = 1 MHz
VCB=10V
ton
Turn-on Time
Ic=500mA IB1 =50 mA
Vee = 30 V
Turn-off Time
Ic = 500 mA Vee=30V IB1 =-IB2 = 50 mA
• Pulsed: pulse duration = 300 ~s, duty cycle = 1 %
0.8
0.17 0.3 0.5
0.3 0.5 0.95
V V V
0.78 0.95 1.05
0.9 1.2 1.7
V V V
25 40 25
55 75 45 45
250
400
V cE =10V
Ic = 0 I = 1 MHz
204
IlA IlA
Ic=101lA
Emitter-base Capacitance
2/4
Unit
1.7 120
Collector-base Breakdown Voltage (IE = 0)
T amb = 100°C
CEBO
toff
Max_
VCB=40V VCB=40V
I = 100 MHz
.. ..
Typ-
Collector Cutoff Current (IE = 0)
•• See test circuil.
MHz
40
55
pF
4.8
12
pF
15
35
ns
40
60
ns
BSS26 DC Current Gain.
Collector-emitter Saturation Voltage. o
0_3050
J()49
I IIIIII I Ilill
VCE(sat) (V)
II VCE =1
Ie ::: 10
Is
0.6
80
r--.,
60
0.5
1\
V
0.4
40
0.3
7'"
.........
0.2
V
20
, ,
0.1
,.
-
,
,
'B
10
, ,
10'
,.
, ,
,
Base-emitter Saturation Voltage.
, ,
B
,
, , ,
B
10
Ie (mA)
10'
B
Ie (rnA)
High Frequency Current Gain. G
3052
II
VSE(sat )
Ie =101 8
(V)
1.2
(18
0.6
0.4
\
/
- -
1\
/ / VCE '" 10V f :: IOOMHz
0.2
,
, B
,
,
'B
10'
10
6B
,
'c(mA}
Collector-base Capacitance.
II ,
'B
10
,
6 B
10'
6 8
Ie (rnA)
Collector Cutoff Current. G lOS!.
G )053
(C80
leBO
(pF)
(~A)
\ \
veB =40\1 IE =0 10
/ B
.........
V 6
, /
2
10-1 10
15
20
VeB (V)
!LV
25
50
15
I
3/4
205
BSS26 Switching Characteristics.
(ns)
,
Ptot
r-+-t
6~~ I----~
,
,r--....
10
G-305
_JOS5
f-fts
~ ,~ 6
i
1.6
r- r-l...l
~~
I,
,
(mW)
1,2
I--
....
Vee :30V
,
~
0,8
Ic='0IEn=-1OIB2
0.4
F0-
~ '-t,. ~~. ~
r- ~EI"R ~"" 1'.l - t-- ~
100
200
400
600 Ie (mAl
50
Test Circuit for lon, toff.
VBB = -3,8V
+9.7fl
VIN~"F
.Y,62Jl 5-4618 Pulse generator :
t" U ~ 1.0 ns PW
~10Jls
Z'N~50Q
DC<2%
4/4
206
To oscilloscope: tr < 1.0 ns Z'N;> 100 kQ.
100
150
BSS71S HIGH VOLTAGE AMPLIFIER DESCRIPTION The BSS71 S is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed for high voltage amplifier and switching applications at current levels from 100 !lA to 100 mAo The complementary PNP type is the BSS74S.
T0-18
INTERNAL SCHEMATIC DIAGRAM
c
::4:
B
E
S_SB96
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage
200
V
VCEO
Collector-emitter Voltage
200
V
VEBO
Emitter-base Voltage
Ic IB
P tot T stg , Tj January 1989
Parameter
Collector Current Base Current
6
V
200
mA
50
mA
S;
0.5 2.5
W W
Storage and Junction Temperature
200
°C
Total Device Dissipation at T amb at T case
25°C S; 25°C
1/2
207
BSS71S THERMAL DATA 70
Max
Thermal Resistance Junction-case
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Max.
Unit
ICBo
Collector Cutoll Current (I E = 0)
VCB =- 150 V
- 50
nA
ICEo
Collector Cutoff Current (IB = 0)
VCE=-150V
- 500
nA
lEBO
Emitter Cutoff Current (Ic = 0)
VBE = 5 V
- 50
nA
V(BR)CBO
Collector-emitter Saturation Voltage (IE = 0)
Ic=-1001lA
- 200
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic =-2 mA
- 200
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE =-100
-6
V
VCE(sat) *
Collector-emitter Saturation Voltage
Ic =- 10 mA Ic =- 30 mA Ic =- 50 mA
IB =- 1 mA IB =- 3 mA IB =- 5 mA
- 0.3 - 0.4 - 0.5
V V V
VBE(sat) *
Base-emitter Saturation Voltage
Ic =- 10 mA Ic =- 30 mA Ic =- 50 mA
IB =- 1 mA IB =- 3 mA IB =- 5 mA
- 0.8 - 0.9 -1
V V V
DC Current Gain
Ic=-1 mA Ic=-10mA Ic =-30 mA
VCE=-10V VCE=-10V VCE=-10V
30 50 40
250
Transition Frequency
Ic =-20 mA 1= 20 MHz
VCE =- 20 V
50
200
CCBO
Collector -base Capacitance
IE = 0 1=1 MHz
VCB =- 20 V
3.5
pF
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =- 0.5 V
45
pF
ton
Turn-on Time
Ic =- 50 mA Vcc =- 100 V
IB1 =- 10 mA
100
ns
toft
Turn-oIl Time
Ie =- 50 rnA IB1 =-IB2 =-10 rnA Vcc=-100V
400
ns
Symbol
hFE *
IT
Parameter
* Pulsed: pulse duration
2/2
208
= 300 ~s, duty cycle = 1 %.
Test Conditons
IlA
Min.
Typ.
MHz
BSS72S HIGH VOLTAGE AMPLIFIER PRELIMINARY DATA
DESCRIPTION The BSS72S is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed for high voltage amplifier and switching applications at current levels from 100 !lA to 100 mA. The complementary PNP type is the BSS75S.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
::4:
B
E
s-
6B96
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VC80
Collector-base Voltage
200
V
VCEO
Collector-emitter Voltage
200
V
VE80 Ic 18 Ptot Tstg , Tj January 1989
6
V
200
mA
Base Current
50
mA
Total Device Dissipation at Tamb ,;; 25°C at Tease';; 25°C
0.5 2.5
W W
- 65 to 200
°C
Emitter-base Voltage Collector Current
Storage and Junction Temperature
1/2
209
BSS72S THERMAL DATA Max
Thermal Resistance Junction-case
70
ELECTRICAL CHARACTERISTICS (Tamb = 25°C unless otherwise specified) Symbol
Max.
Unit
ICBo
Collector Cutoff Current (IE = 0)
VCB=150V
50
nA
ICED
Collector Cutoff Current (IB = 0)
VCE=150V
500
nA
lEBO
Emitter Cutoff Current (Ic = 0)
VBE = 5 V
50
nA
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 flA
200
V
V(BR)CEO
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 10 mA
200
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 flA
6
V
Collector-emitter Saturation Voltage
Ic = 10 mA Ic = 30 mA Ic = 50 mA
IB = 1 mA IB = 3 mA IB = 5 mA
0.3 0.4 0.5
V V V
Base-emitter Saturation Voltage
Ic = 10 mA Ic = 30 mA Ic = 50 mA
IB = 1 mA IB = 3 mA IB = 5 mA
0.8 0.9 1
V V V
DC Current Gain
Ic = 1 mA Ic = 10 mA Ic = 30 mA
VCE=10V VCE = 10V VCE = 10V
30 50 40
250
Transition Frequency
Ic = 20 mA f = 20 MHz
VCE = 20 V
50
200
CCBO
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB = 20 V
3.5
pF
CEBO
Emitter-base Capacitance
Ic = 0 f= 1 MHz
VEB = 0.5 V
45
pF
ton
Turn-on Time
Ic = 50 mA Vcc=100V
IB1 = 10 mA
100
ns
toft
Turn-off Time
Ic = 50 mA IB1 = - IB2 = - 10 mA Vcc = 100 V
400
ns
V(BR)CBO
.
VCE(sat)
.
VBE(sat)
.
hFE *
fT
Parameter
- Pulsed: pulse duration
2/2
210
Test Conditons
= 300 Ils. duty cycle = 1 %.
Min.
Typ.
MHz
--
BSS74S HIGH VOLTAGE AMPLIFIER PRELIMINARY DATA
DESCRIPTION The BSS74S is a silicon planar epitaxial PNP transistor in Jedec TO-18 metal case. It is designed for high voltage amplifier and switching applications at current levels from 100 J.lA to 100 mA. The complementary NPN type is the BSS71 S.
TO-18
INTERNAL SCHEMATIC DIAGRAM
:~:
B" NPN
E
5_6896
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector-base Voltage
- 200
V
VCEO
Collector-emitter Voltage
- 200
V
VEBO Ic IB
P tot T stg • Ti January 1989
Emitter-base Voltage Collector Current Base Current Total Device Dissipation at T amb at T case
25°C :::; 25°C
:::;
Storage and Junction Temperature
-6
V
-100 - 50
mA mA
0.5 2.5
W W
- 65 to 200
°C 1/2
211
BSS74S THERMAL DATA Thermal Resistance Junction-case
70
Max
ELECTRICAL CHARACTERISTICS (T amb = 25 CC unless otherwise specified) Symbol
Max.
Unit
ICBo
Collector Cutoff Current (IE = 0)
Parameter
VCB=-150V
- 50
nA
ICEo
Collector Cutoff Current (IB = 0)
V cE =-150V
- 500
nA
lEBo
Emitter Cutoff Current (Ic = 0)
VBE = 5 V
- 50
nA
Collector-base Breakdown Voltage (IE = 0)
Ic =- 100 flA
- 200
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =- 2 mA
- 200
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = - 100 flA
-6
V
Collector-emitter Saturation Voltage
Ic =- 10 mA Ic =- 30 mA Ic =- 50 mA
IB =- 1 mA IB =- 3 mA IB =- 5 mA
- 0.3 - 0.4 - 0.5
V V V
Base-emitter Saturation Voltage
Ic=-10mA Ic =- 30 mA Ic =-50 mA
IB =- 1 mA IB =- 3 mA IB =- 5 mA
- 0.8 - 0.9 -1
V V V
DC Current Gain
Ic = - 100 f!A Ic = - 1 mA Ic=-10mA Ic =-30 mA
VCE = - 1 V VCE=-10V VCE=-10V VCE=-10V
20 30 50 35
150
Transition Frequency
Ic =- 20 mA 1=20 MHz
VCE =- 20 V
50
200
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=-20V
3.5
pF
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =- 0.5 V
45
pF
ton
Turn-on Time
Ic = - 50 mA Vcc = - lOa V
IB1 =-IOmA
lao
ns
toft
Turn-off Time
Ic =- 500 mA IB1 =-IB2 =-10 mA Vcc=-IOOV
400
ns
V(BR)CBO
V(BR)CEO
.
V(BR)EBO
VCE(sat)
.
VBE(sat)
.
hFE
.
IT
Test Conditons
• Pulsed: pulse duration = 300 Ils, duty cycle = 1 %.
2/2
212
Min.
Typ.
MHz
BSS75S HIGH VOLTAGE AMPLIFIER PRELIMINARY DATA
DESCRIPTION The BSS75S is a silicon planar epitaxial PNP transistor in Jedec TO-18 metal case. It is designed for high voltage amplifier and switching applications at current levels from 100 ~A to 100 mA. The complementary NPN type is the BSS72S.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
:~:
B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector-base Voltage
- 200
V
VCEO
Collector-emitter Voltage
- 200
V
VEBO
Emitter-base Voltage
Ic IB
P,o, T stg , Tj January 1989
Collector Current Base Current Total Device Dissipation at T amb :;; 25°C at T case:;; 25°C Storage and Junction Temperature
-6
V
- 100
mA
- 50
mA
0.5 2.5
W W
- 65 to 200
°C 1/2
213
BSS75S THERMAL DATA Thermal Resistance Junction-case
70
Max
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Parameter
Max.
Unit
Icso
Vcs=-150V
- 50
nA
ICEo
Collector Cutoff Current (Is = 0)
VCE=-150V
- 500
nA
IEso
Emitter Cutoff Current (Ic = 0)
VSE = 5 V
- 50
nA
V(SR)CSO
Collector-emitter Saturation Voltage (IE = 0)
Ic =-100
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic =- 2 mA
V(SR)ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE =-100
VCE(sat) *
Collector-emitter Saturation Voltage
Ic=-10mA Ic =- 30 mA Ic =- 50 mA
Is=-1mA Is =-3 mA Is =- 5 mA
- 0.3 - 0.4 - 0.5
V V V
VSE(sat) *
Base-emitter Saturation Voltage
Ic=-10mA Ic =- 30 mA Ic =- 50 mA
Is =- 1 mA Is =- 3 mA Is =-5 mA
- 0.8 - 0.9 - 1
V V V
DC Current Gain
Ic=-1 mA Ic=-10mA Ic =- 30 mA
VCE=-10V VCE=-10V VCE=-10V
30 50 40
250
Transition Frequency
Ic =-20 mA f = 20 MHz
VCE =- 20 V
50
200
Ccso
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs=-20V
3.5
pF
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VEB =- 0.5 V
45
pF
ton
Turn-on Time
Ic =- 50 mA Vcc =-100 V
1st =- 10 mA
100
ns
toff
Turn-off Time
Ie =- 50 mA IS1 =-l s2 =-10 mA Vcc =- 100 V
400
ns
hFE *
fT
• Pulsed: pulse duration
2/2
214
~
300 ~s, duty cycle = 1 %.
Test Conditons
Min_
Collector Cutoff Current (IE = 0)
Symbol
JlA
JlA
Typ.
- 200
V
- 200
V
-6
V
MHz
BSV15 BSV16 MEDIUM POWER AMPLIFIERS DESCRIPTION The BSV15 and BSV16 are silicon planar epitaxial PNP transistors in Jedec TO-39 metal case, intended for use in medium power general industrial applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Parameter
Unit
BSV15
BSV16
VCES
Collector-emitter Voltage (V8E = 0)
- 40
- 60
VCEO
Collector-emitter Voltage (18 = 0)
- 40
- 60
VE80
Emitter-base Voltage (Ic = 0)
Ie
Collector Current
18
Base Current
Ptot T stg , Tj October 1988
Total Power Dissipation at T case <; 25°C Storage and Junction Temperature
-5
V V V
- 1
A
- 0.2
A
5
W
- 65 to 200
°C 1/4
215
BSV15-BSV16 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
35 200
ELECTRICAL CHARACTERISTICS(T amb = 25 "C unless otherwise specified) Symbol
ICEs
ICEx
IEso
Parameter
Max.
Unit
T amb = 150°C
- 0.1 - 50
IlA flA
T amb = 150°C
- 0.1 - 50
IlA flA
T amb = 100°C
- 50
IlA
T amb = 100°C
- 50
flA nA
Test Conditions
Collector Cutoff Current (VSE = 0)
for BSV 15 VCE=-40V VCE =-40V for BSV 16 VCE = - 60 V VCE = - 60 V
Collector Cutoff Current (VSE = 0.2 V)
for BSV 15 VCE=-40V for BSV16 VCE=-60V
Emitter Cutoff Current (Ic = 0)
VES = - 4 V
Min.
Typ.
- 50
V(SR) CES
Collector-emitter Breakdown Voltage (VBE = 0)
Ic =- 1O IlA
for BSV15 for BSV 16
- 40 - 60
V V
VCEO(sus)'
Collector-emitter Sustaining Voltage (IB = 0)
Ic=-10mA
for BSV 15 for BSV 16
- 40 - 60
V V
V(BR) EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=-10flA
Collector-emitter Saturation Voltage
Ie =- 500 mA
Is =- 25 mA
- 0.25
Ic = - 100 mA Ic = - 500 mA
VCE=-1V VCE=-1V
- 0.7
- 0.85
Ic =- 0.1 mA
VCE =- 1 V Gr. 6 Gr. 10 Gr. 16 VCE=-1V Gr.6 Gr.10 Gr. 16
15 20 30
44 75 120
40 63 100
63 100 160
VCE (sat) VBE hFE
Base-emitter Voltage DC Current Gain
Ic = - 100 mA
,
Pulsed: pulse duration
2/4 216
=
300 fls. duty cycle
=
1 %.
V
-5 -1 -1 -1.4
100 160 250
V V V
BSV15·BSV16 ELECTRICAL CHARACTERISTICS (conlinued) Parameter
Symbol hFE
Ic =- 500 mA
VCE = - 1 V Gr. 6 Gr. 10 Gr. 16
hfe
Small Signal Current Gain
Ic = - 1 mA 1=1 KHz
VCE=-5V
IT
Transition Frequency
Ic =- 50 mA 1= 20 MHz
VCE =-1 V
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =- 0.5 V
CCBO
Collector-base Capacitance
ts tf ton **
DC Current Gain
Test Conditions
.. .. ..
IE = 0
Min.
Typ.
20 25 35
40 55 85
Unit
20 MHz
50 180
VcB =-10V
f = 1 MHz
Max.
20
pF 30
Storage Time
Ic =-100 mA Vcc = - 20 V IB1=-IB2 =- 5 mA
500
Fall Time
Ic =- 100 mA Vcc=-20V IB1 = - IB2 = - 5 mA
150
Turn-on Time
Ic =- 100 mA IB1 =- 5 mA
500
Vcc=-20V
pF ns ns ns
See test circuit.
Tesl Circuil for Is, If and Ion. r-----<~J-t-5V
(VSB )
-20V(VCC )
......,t pl _
OVlJ
-11V-
5-4619 PULSE GENERATOR: Ip~ 10~s
tr::; 15 ns tl::; 15 ns
l,
=
50
TO OSCILLOSCOPE: Ir ~ 15 ns liN ~ 100 KQ
Q
3/4
217
BSV15-BSV16 Safe Operating Areas.
DC Current Gain. (,-166&
~
hFE
-Ie 8 =fCMAXi IA);
--r-
W...LL "CE=-lIJ
e-85"'5-161
150
"
85V16-16
:1 1 I
....... 'jl!
10- 1
--
100
!I,
85V15-10 ,85V16-10
I
I" 85'0'15-6
I
'185VI6-6
50
,1-% 10- 1
10
Collector-emitter Saturation Voltage. -1B
hFE ::10
~
+-
-VBE (sat )
Iv)
1'1
I
I111 h FE ",10
1-.
II!
I-I----- .
++I
,
.-"
1--1,
H-
H-1++l+---+-Il++++Jj-++H-l+++
4/4
218
10'
"
III
I,
Ji--
[IT I
-+-I i
I i
I
I
! I 10
75 f--c~+++++H--+-+ ++-1d.OI~,oc--l-++i++l+
I
Ii
II
Ii ,
i
II
I
11
(,-1661
10
,
)jI
10'
I ......
0.5
~ ,
I I'
Transition Frequency.
25
I
I
~
f=35MHz
I
I
1
,
10
!
I
.-
0.5
-'c(mA)
~
.J-
III
10'
Base-emitter Saturation Voltage.
rrr
)
10
+-
..-
.
10'
m IIII
BSX19 BSX20 HIGH-SPEED SATURATED SWITCHES DESCRIPTION The BSX19 and BSX20 are silicon planar epitaxial NPN transistors in Jedec TO-18 metal case. They are primarily intended for very high speed saturated switching applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c 60--+1:"
NPN
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
40
V
VCES
Collector-emitter Voltage (VBE = 0)
40
V
VCEO
Collector-emitter Voltage (IB = 0)
15
V
VEBO
Emitter-base Voltage (Ic = 0)
4.5
V
ICM
Collector Peak Current (t = 10
Ptot
Total Power Dissipation at T amb :<> 25°C at T case :<> 25°C
T stg , Tj
~s)
Storage and Junction Temperature
January 1989
0.5
A
0.36 1.2
W W
- 65 to 200
°C 1/4
219
BSX19-BSX20 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
0.4 30
j.iA j.iA
T amb = 55°C
0.4 1
j.iA j.iA
T amb = 55°C
0.6
j.iA
10
j.iA
0.6
j.iA
Collector Cutoff Current (IE = 0)
VCB =20V VCB =20V
ICES
Collector Cutoff Current (VBE = 0)
VCE =15V VCE =40V
ICEX
Collector Cutoff Current (VBE =- 3 V)
VCE =15V
lEBO
Emitter Cutoff Current (Ic =0)
VEB =4.5V
IBEX
Base Cutoff Current (VBE =-3 V)
VCE =15V
Collector-emitter Sustaining Voltage (RBE = 10 0)
Ic=10mA
20
V
V(BR)CEO
Collector-emitter Breakdown Voltage (IB = 0)
Ic=10mA
15
V
VCE(sat)
Collector-emitter Saturation Voltage
Ic=10mA Ic=100mA for BSX19 Ic=10mA for BSX20 Ic=10mA
IB = 1 mA IB=10mA
0.25 0.6
V V
IB = 0.6 mA
0.3
V
IB = 0.3 mA
0.3
V
Base-emitter Voltage
Ic = 30 j.iA T amb = 100°C
VCE =20V
Base-emitter Saturation Voltage
Ic=10mA Ic=100mA
IB = 1 mA IB = 10 mA
0.7
0.85 1.5
DC Current Gain
for BSX19 Ic=10mA Ic=100mA Ic=10mA Tamb =- 55°C for BSX20 Ic=10mA Ic=100mA Ic=10mA Tamb =- 55°C
VCE = 1 V VCE = 2 V VCE = 1 V
20 10
60
ICBo
VCER (sus)
.
. .
VBE VBE(sat) hFE
.
fT
.
Transition Frequency
T amb = 150°C
T amb = 55°C
0.35
V V V
10 VCE = 1 V VCE = 2 V VCE = 1 V
120
40 20 20
Ic=10mA for BSX19 for BSX20
VCE=10V 400 500
500 600
MHz MHz
CEBO
Emitter-base Capacitance
Ic = 0
VEB = 1 V
4.5
pF
CBO
Collector-base Capacitance
IE = 0
VCB = 5 V
4
pF
ts **
Storage Time
Ic=10mA Vcc = 10 V IBI =-IB2 = 10 mA for BSX19 for BSX20
10 13
ns ns
• Pulsed: pulse duration = 300IlS, duty cycle = 1%
214
220
•• See test circuit.
5 6
BSX19-BSX20 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter
Test Conditions
Turn-on Time
ton
Turn-off Time
toff
Vee = 3 V
le=10mA IBI =3 mA
Vee = 3 V IB2 =-1.5 mA for BSX19 for BSX20 Vee = 6 V IB2 =- 20 mA for BSX19 for BSX20
le=100mA IBI =40 mA
Collector-emitter Saturation Voltage.
--
hFE=lO
~
I
0.2
,
O.t
0.8
....
-
';0;;;;.
ns
15 18
ns ns
18 21
ns ns
~L
~~~L
H--++r-.~--f"'k::-t~
r-.
-50
SOmA
H-++-H-+-+-I-+-+-+-I-+-+-+-I
-100
DC Current Gain.
-SO
0
50
100
ISO
200
Tj (OC)
DC Current Gain (for BSX19 only). 6--191,5
80
VCE '" IV
G 1941
II II
..,
..........
100
BSX20
80
60
...... 1--'
60
VCE
I I.. IV
I I
I I I I ,
, I
I
I
I
I
i
~
!£S'
,
i
/1'c;lO ... -
I
BSX19
20
./
10-1
10
...
.k i::::: ~
-rI
-50
IC(mA)
50
I
i i
I i)
I
I
I
00
20
i-
,<:=100 mA
0.6H-+-H-+
0~2
-100
7
hFE =10
y ......
,-
i_
ns
I I I
(V)
-
~ Ic=1OOmA i Iso:: 1 I
12
I
I
,
Unit
1.2 H-++-H-+-+-I-+-+-+-I-+-+-+-I
I
r--- r--- -
~-
i
I
0.0
Max.
Vee = 6 V
VBE(sat)
(v)
0.5
Typ.
Base-emitter Saturation Voltage.
VCE(sat )
0.3
Min.
le=10mA IBI =3mA le=100mA IB1=40mA
./
.....
-100
~A
J....
IlOOmA
I I I I 150
1) ("C)
;;:
Gi SGS-THOMSON ~I IiIiIU©IIl@rn~Im1i'IIl@INIUCii
3/4
221
BSX19-BSX20 DC Current Gain (for BSX20 only).
250
H-+
I II I I , i ,,i
VeE elV
200
150
100
50
I
t
!
1
+
I
- ! i ,
:
i......r--'
i ....;....: '"t"
i
i
I
-
-50
H-
Transition Frequency.
I
'T (MHz ) -~
I I
i I
800
I
VCE =lOV
I
;
BSX20
I
,i
600
r' 0,=10m~
/,
I
I I
r- t-- t--
IV
J......l.--1 i 100mAj-
200
I I I I I 50
100
10
20
Test circuit forts.
·A·
O.l,uF
890
n
PULSE GENERATOR VINtr
SOURCE·IMPEOANCE=50Jl
PW.:!S lOOn!> DC < 2°,.
4/4
222
l"""-
BSX19
I
......r!50mA
i
400
.......j ~ ~
V
:"~l~'"'" ,.,Z IN =501\
I.:::: lns.
1-----+--'--11
'0
BSX26 HIGH-SPEED SATURATED SWITCH DESCRIPTION The BSX26 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed for switching applications up to 500 mAo
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VBE
VCEO
Collector-emitter Voltage (Is
VEBO
Emitter-base Voltage (Ic
Ic Ptot
T stg , Tj
= 0)
= 0)
= 0)
Value
Unit
40
V
40
V
15
V
4
V
Collector Current
500
mA
Total Power Dissipation at T amb " 25°C at Tease" 25°C at Tease" 100 °C
0.36 1.2 0.68
W W W
- 65 to 200
°C
Storage and Junction Temperature
November 1988
1/4
223
BSX26 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
0.5 15
IlA IlA
Collector Cutoff Current (VSE = 0)
VCE =20 V VeE =20 V
V(BR)CSO
Collector-base Breakdown Voltage (I E = 0)
Ic = 100
IlA
40
V
V(SR)CES
Collector-emitter Breakdown Voltage (VSE = 0)
Ic=1001lA
40
V
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
le=10mA
15
V
V(SR)EBO
Emitter-base Breakdown Voltage (Ie = 0)
IE = 100
IlA
4
V
VeE(sa!) *
Collector-emitter Saturation Voltage
Ie = 30 mA Ic = 100 mA Ic = 300 mA Ic = 30 mA T amb = 85°C
Is Is IB Is
VBE(sa!) *
Base-emitter Saturation Voltage
Ic = 30 mA Ie = 100 mA Ie = 300 mA
Is = 3 mA Is = 10 mA Is = 30 mA
0.75
DC Current Gain
Ie = 30 mA le=100mA Ie = 300 mA
VeE =0.4 V VCE =0.5 V VCE = 1 V
Transition Frequency
Ic =30 mA 1= 100 MHz
VCE=10V
CESO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VES = 0.5 V
Ccso
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs = 5 V
ts
Storage Time
Ie = 10 mA Vee =10V IS1 =-ls2 = 10 mA
ton **
Turn-on Time
Ie = 300 mA IB1 = 30 mA
Vce = 15 V
toff **
Turn-oil Time
Ie = 300 mA Vcc = 15 V IS1 =-ls2 =30 mA
ICES
hFE *
IT
• Pulsed: pulse duration =
2/4 224
300~s,
duty cycle = 1%
T amb = 85°C
= = = =
0.16 0.18 0.39
0.18 0.28 0.5
V V V
0.18
0.3
V
0.82 0.97 1.3
0.95 1.2 1.7
V V V
30 25 15
60 55
120
350
550
3 mA 10 mA 30 mA 3 mA
.. See test circuit.
MHz
6.5
8
pF
3.3
5
pF
8
18
ns
9
15
ns
15
25
ns
BSX26 Collector-emitter Saturation Voltage.
DC Current Gain.
!
VCE(sat ) (V)
Ie =101e
80
0.8
60
II i ;
I
!
!
I
f--i
0.6
I
I II
i! !
'/~
~' I i
40
0.4
20
0.2
iN
i
I ~.,.c}')
.+
"" ,,"
'<.:«'~c..
10
Base-emitter Saturation Voltage.
,
,
Ie
6'
(rnA)
Emitter-base and Collector-base Capacitances.
G. 30 5
VBE(sat )
Ie
(V)
=10,18
,,
1.6
i i
1.2
0.8
I ! I
Ii! I!
:I
I
I
I
I ,I Ii ' 'I I!
11I1
I,~~~ -J-f-~
!
!h
II II i i / i'
i
/ ' '/
V
,
i!
j
11
I I
I
i
,II II
0.4
It 10
, 5'
!I
10.'
, Ie 6' (rnA)
Contours of Constant Transition Frequency.
Switching Characteristics. G-3079
I
I
(ns)
I
I !
I
I! I!!
!,
II
'co ,o. ,., o-lo.'.2 ~ VCc.=1SV
II
30
~ !
25
c""-
20
:-.... .........
15
10
I
I
--10.
i
"
"'
~ 1'-.,'
Is Ir I
b
'"--- Id
, 6'
10.'
, Ie 6' (rnA)
3/4
225
BSX26 Test circuit for ton, tofl.
0.1 ,.u F
::r:
J: 0.05jJF 33.1l ---CVOUT
5- 4620
PULSE GENERATOR:
TO OSCILLOSCOPE:
Ir, If < 1.0ns
Ir< 1.0ns
PW~240ns
ZIN=
ZIN =
4/4
226
500
100KO
BSX28 HIGH-SPEED SATURATED SWITCH DESCRIPTION The BSX28 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed specifically for high speed saturated switching applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VBE
VCEO
Collector-emitter Voltage (IB
VEBO Ic P tot
T stg , T j
= 0)
= 0)
= 0)
Value
Unit
30
V
30
V
12
V
4.5
V
Collector Current
500
rnA
Total Power Dissipation at T amb ,; 25°C at T case'; 25°C at T case ,; 100°C
0.36 1.2 0.68
W W W DC
Emitter-base Voltage (Ie
Storage and Junction Temperature
November 1988
- 65 to 200
1/3
227
BSX28 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Collector Cutoff Current (VSE = 0)
ICES
VCE =20 V VCE =20 V
Min.
Typ.
T amb = 85°C
Max.
Unit
0.4 10
flA flA
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ic=10flA
30
V
V(SR)CES
Collector-emitter Breakdown Voltage (VSE = 0)
Ic=10flA
30
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
12
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 flA
4.5
V
V(SR)CEO
.
V(SR)ESO VCE(sat)
.
Collector-emitter Saturation Voltage
Ic=10mA Ic = 30 mA Ic=100mA Ic = 10 mA T amb = 85°C
Is = 1 mA Is = 3 mA IB=10mA IB = 1 mA
Ic=10mA Ic =30 mA Ic=100mA
IB = 1 mA IB = 3 mA IB = 10 mA
DC Current Gain
Ic = 10 mA Ic =30 mA Ic = 100 mA
VCE = 0.35 V VCE = 0.4 V VCE = 1 V
Transition Frequency
Ic = 20 mA 1= 100 MHz
VCE=10V
Collector-base Capacitance
IE = 0 1=1 MHz
VCB = 5 V
ts
Storage Time
Ic = 10 mA Vcc=10V IB.t =-IB2=10mA
ton
Turn-on Time
Ie = 30 mA IB1 = 3 mA
toff
Turn-oIl Time
Ic =30 mA Vcc = 2 V IB1 - IB2 = 3 mA
VBE(sat)
hFE
.
IT CCBO
.
Base-emitter Saturation Voltage
• Pulsed: pulse duration
2/3
228
= 300
ms, duty cycle
= 1 %.
0.15 0.18 0.3
0.2 0.25 0.5
V V V
0.17
0.3
V
0.72
0.8 0.9 1.1
0.87 1.15 1.6
V V V
30 25 15
70 70 50
120
400
650
MHz
2.3
4
pF
6.5
13
ns
Vec = 2 V 9
15
ns
13
20
ns
BSX28 DC Current Gain.
Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage.
Emitter-base and Collector-base Capacitances. e
(pF)
k-+-t-H'++HiI-
10- 1
Contours of Constant Transition Frequency.
10
Switching Characteristics.
10
_
10
_
102
'e lmA)
3/3
229
BSX29 SWITCH AND RF AMPLIFIER DESCRIPTION The BSX29 is a silicon planar epitaxial PNP transistor in Jedec TO-18 metal case. It is designed for saturated and nonsaturated switching circuits requiring up to 200mA of collector current.
TO-18
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
Vcso
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VSE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
Ic Ptot T stg • T j
= 0)
= 0)
= 0)
Collector Currenl Total Power Dissipation at T amb " 25°C at T case" 25°C Storage and Junction Temperature
December 1988
Value
Unit
-12
V
-12
V
-12
V
-4
V
- 200
mA
0.36 1.2
W W
- 65 to 200
°C 1/4
231
BSX29 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICES
Parameter Collector Cutoll Current (VSE = 0)
Test Conditions VCE=-6V VCE=-6V
Min.
Typ.
T amb = 85°C
Max.
Unit
- 80 -5
IlA
nA
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ic=-101lA
-12
V
V(SR)CES
Collector-emitter Breakdown Voltage (VSE = 0)
Ic=-101lA
-12
V
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic=-10mA
- 12
V
V(SR)ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE = - 100
-4
V
VCE(sat) *
Collector-emitter Saturation Voltage
IlA
V V V
- 0.15
- 0.4
V
-1.4
- 0.95 -1 - 1.7
V V V
Ic=-10mA Ic=-30mA Ic =- 100 mA
Is = - 1 mA Is =- 3 mA Is=-10mA
- 0.75 - 0.80
Ic =- 10 mA Ic=-30mA Ic=-100mA
VCE = - 0.3 V VCE = - 0.5 V VCE=-1V
25 30 20
50 60 40
Transition Frequency
Ic =- 30 mA 1= 100 MHz
VCE =- 10V 400
700
CESO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VES =- 0.5 V
Ccso
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs=-5V
ton **
Turn-on Time
Ic =- 30 mA IS1 =- 1.5 mA
Vcc =- 2 V
toff * *
Turn-off Time
Ic =- 30 mA Vcc =- 2 V 1st = - IS2 = - 1.5 mA
hFE *
IT
Base-emitter Saturation Voltage
DC Current Gain
* Pulsed: pulse duration = 300[1s, duty cycle = 1%. ** See test circuit.
2/4
232
1 mA 3 mA 10 mA 3 mA
- 0.15 - 0.2 - 0.5
Is Is Is Is
VSE(sat) *
====-
- 0.07 - 0.1 - 0.25
Ic=-10mA Ic =-30 mA Ic =-100 mA Ic =-30 mA T amb = 85°C
120
MHz
3.8
6
pF
3.3
6
pF
25
60
ns
35
90
ns
BSX29 DC Current Gain.
Collector-emitter Saturation Voltage.
'05
Hi-t+..HWf- -t--t-ttttttl----t-H-tM1t-
90
t-H-H++Ht-+J-I'Htt++--+-+-"'i.H+lf
60 h~f-Itti#---+
30
15 r-1-+1tt~lt---++-t++~++++++l1f--l+f++++!l 1(r2'-':--'-c~~+-"+'-''!'L-+-.l....j-l!-ijlL-!....l..!-'-!'!" 10.'
Base-emitter Saturation Voltage.
ii 'I
(V)
-le=-'018
iT .s r---cI'
I
2
10-1
!
:
Emitter-base and Collector-base Capacitances.
r-rT"'IIn1'T'm-.....:G;:. ~'I~'Il,,2
-vOE(saur-"rrrnrrr-TTT,TT I, m.
ill
:
II
'r'lljlr---t-t-tt+,I. -+-+-llcttHtt:! -I ! I ~'" I -H~~-HtrHtIt-H-!+H# if-- fr-f-++t+t++JH tttt:,
III
lilli
468
2
II II) II· I
468
1
2
(, 68
Ilil
2
102
10
L
68
-Ie (mA)
Contours of Constant Transition Frequency.
G-Jl0l
l.,h
II
I111
........."
~
~~
I I
r--
~~~~
r...
,
, "
..
-""IV)
Switching Characteristics.
G 3104
-,==.700 MHz
650
,
\
\
I
~
.1',-
I
! f-
1000
rf' ~
Iii
•
. ..
.0
'~ " tf
Ir '
~
.0-'
I
I. !
,
6
'10 2
2
'i r-tttr
,I
IIIIII . ,.
'le(mA)
., .
.0
.i'!! ,. 102
:r -IC(mA)
3/4
233
BSX29 TEST CIRCUIT Test circuit for ton, toft. VB B
V( C = -2.0V
VIN~"'F
.1'OOll $-4621
PULSE GENERATOR:
fr, :51.0ns PW= 400ns ZIN = 500
Ion VBB = + 3.0V, VIN = - 7.0V loll VBB = - 4.0V, VIN = + 6.0V
4/4 234
TO OSCILLOSCOPE: Ir :51.0ns ZIN;:' 100KO
BSX32 HIGH-VOLTAGE, HIGH-CURRENT SWITCH DESCRIPTION The BSX32 is a silicon planar epitaxial NPN tran- sistor in Jedec TO-39 metal case. It is designed for high voltage, high current switching appli-
To-39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
65
V
VCEO
Collector-emitter Voltage (Is = 0)
40
V
VEBO
Emitter-base Voltage (Ic = 0)
6
V
Collector Current
1
mA
0.8 3.5
W W
- 55 to 200
°C
Ic
Ptot T stg , T j October 1988
Parameter
Total Power Dissipation at T amb ~ 25°C at T case ~ 25°C Storage and Junction Temperature
1/4
235
BSX32 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
50 219
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter Collector Cutoff Current (IE = 0)
Icso
Test Conditions
Min.
VCB =50 V
Typ.
Max.
Unit
0.25
4
IlA
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ic=1001lA
65
V
V(SR)CEO
Collector-emitter Breakdown Voltage (Is = 0)
Ic=10mA
40
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100
IlA
6
V
.
V(SR)ESO VCE(sa!)
VSE(sa!)
hFE
.
IT
.
.
Collector-emitter Saturation Voltage
Base-emitter Saturation Voltage
DC Current Gain
Ic=100mA Ic = 500 mA Ic = 1A
Is=10mA Is =50 mA Is = 100 mA
0.17 0.36 0.6
0.25 0.5 0.85
V V V
Ic=100mA Ic = 500 mA Ic = 1 A
Is=10mA Is =50 mA Is = 100 mA
0.8
0.9 1.5 2
V V V
Ic=10mA Ic=100mA Ic = 500 mA Ic = 1 A VCE = 1 V
VCE = 1 V VCE = 1 V VCE = 1 V VCE = 5 V Tamb = - 55°C Ic=100mA Ic =500 mA
Transition Frequency
Ic=50mA f = 100 MHz
VCE=10V
C EBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VES = 0.5 V
CCBO
Collector-base Capacitance
Vcs =10V
ton
..
IE = 0 f = 1 MHz
Turn-on Time
Vcc = 30 V
toff
..
Ic = 500 mA IS1 = 50 mA
Turn-off Time
Ic = 500 mA Vcc = 30 V IS1 =- IS2 =50 mA
• Pulsed: pulse duration = 300 •• See test circuit.
214
236
~s.
duty cycle = 1 % .
30 60 25 20
60 90 60 60
30 15
45 35
150
400
MHz
40
55
pF
6
10
pF
22
35
ns
40
60
ns
BSX32 DC Current Gain.
Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage.
Collector-base Capacitance. G-3109
VBE(satl (V)
!I ,
__Jc= 101 8 -_.
-f-
~ ...
-
1.2
_f-
=-55-C
1M
0.8
0.4
(pF)
-
,
~25 'C I
V
~.
!
f-----j-
I\.
_..
'E·O
Iii " ii
[\ I
"
--- ,/ V-
.............
I
f-
Ii
I
'i
'\
Tamb
0.6
(;-)111
Cceo
0.2 1
, ,.
, 6. 10
, 10'
,.
IC(mA)
,
, , • 10
,
,
6
•
Ves(V)
3/4
237
BSX32 Test circuit for ton, toft.
Vcc= + 30V VBB =-3.8V
.9.7fl V'Nl1.0~F 62.fi 5-4618
PULSE GENERATOR:
t" II $1.0 ns PW~ 1.0~s
ZIN= 500 DC< 2%
4/4
238
TO OSCILLOSCOPE: Ir< 1.0 ns ZIN;" 100 KO
BSX33 HIGH-VOLTAGE, HIGH-CURRENT SWITCH DESCRIPTION The BSX33 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case, designed for high voltage and high current switching applications. It features useful current gain from 1OOJ.lA to 500mA and a low saturation voltage allowing switching operation at 1A.
TO-i8
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
85
V
VCEO
Collector-emitter Voltage (IB = 0)
55
V
VEBO
Emitter-base Voltage (Ic = 0)
7
V
Ic Ptot T stg , Tj
Parameter
Collector Current Total Power Dissipation at T amb <; 25 'C at T case <; 25 'C Storage and Junction Temperature
December 1988
1
A
0.5 1.8
W W
- 55 to 200
"C 1/3
239
BSX33 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
97 350
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
10 10
nA
10
nA
Collector Cutoff Current (IE = 0)
Vcs =60V Vcs = 60 V
Emitter Cutoff Current (Ic = 0)
VES = 5 V
Collector-base Breakdown Voltage (I E = 0)
Ic = 100 ~
85
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 30 mA
55
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=100~
7
V
VCE(sat) *
Collector-emitter Saturation Voltage
Ic = 50 mA Ic=150mA Ic = 1 A
Is = 5 mA Is = 15 mA Is=0.1mA
0.08 0.15 0.6
0.3 1
V V V
Base-emitter Saturation Voltage
Ic = 50 mA Ic = 150 mA Ic = 1 A
Is = 5 mA Is = 15 mA Is =0.1 mA
0.76 0.85 1.2
1.1 1.6
V V V
DC Current Gain
Ic Ie Ic Ie Ic
ICBO lEBO V(SR)CSO V(SR)CEO *
VSE(sat) *
hFE *
hIe
Small Signal Current Gain
= 100 ~A = 10 mA = 50 mA = 150 mA = 500 mA
Ic = 1 mA
I = 1 kHz
T amb = 150 °C
VCE VCE VCE VCE VCE
=1 =1 =1 =1 =1
V V V V V
20 50 50 40 20
~A
50 85 95 80 45 85
VCE = 5 V
Transition Frequency
Ic = 50 mA 1=20 MHz
VCE=10V
CEso
Emitter-base Capacitance
Ic = a 1=1 MHz
VES = 0.5 V
50
80
pF
CCBO
Collector-base Capacitance
Vcs=10V
12
20
pF
2
IT
IE = a
I =1 MHz hie
Input Impedance
Ic = 1 mA 1=1 kHz
VCE = 5 V
hre
Reverse Voltage Transler Ratio
Ic = 1 mA 1=1 kHz
VCE = 5 V
hoe
Output Admittance
Ic = 1 mA 1=1 kHz
VCE = 5 V
ton
Turn-on Time
Ic = 150 mA IS1 =7.5mA
Vcc = 20 V
120
200
ns
toff
Turn-all Time
Ic = 150 mA Vcc =20 V IB1 = - IB2 = 7.5 mA
350
800
ns
• Pulsed: pulse duration =
2/3 240
MHz
90
60
300~s,
duty cycle = 1%.
2.2
X
kQ 10
4
8
~s
BSX33 Collector-emitter Saturation Voltage.
DC Current Gain.
160
f-H-l-'+i+ll---i7'ftt+tt+f-t-H-!-Hif><
120
40
10-2
10
Base-emitter Saturation Voltage.
High Frequency Current Gain. G-
VBE(sat) (V)
'C
0
'~~~.
---t-',i I• j I! I
0.9
II
II
'iii
!
I
Ii II
.
1"1 I _lamb:; -55-<:
'
Ilj ,1' I
0.3
2
, I
I,
. 125·V
-
~'
-
4 66
2
Illillil 4 68
10- 1
ill 2
10 2
10
(CBO
V
V
,
,
i
V
-
--
t--- t-
"68
,
2
5
2
S
5 S Ie (rnA)
Collector Cutoff Current.
:t::::= leBosE~1J~uI¥G ~31n :Ve.; 60V
(nA)
,-_
'-~
-f--
V
10 2s E=:==3==E==E==:I 5_ -
'--
30
10
m
It, I II!
10
40
20
rn .i
I
'C(mA)
'E .'0
(pF)
-I. : , ! -
!
I~
Collector-base Capacitance.
~
~
7
1
'jlili i :1 II i il
'
!I
t---
1~~Z
/], l/ ,'jill'
H--mm II, ,
HI
I
-VCE,,101J
1/
,I,j
jl
,
.
j! .
-.",1;;,
-1
h,.
+ '
,
,I j i I~ 0.6 , , ..,. -I t, I;"~ f- ~t ~
Jl!
, I
rttJm ' y'
ii'
311~
-
'j_==:
2-f---r--
\
--
\
"'10
l-
20
30
25
50
75
100
3/3
241
BSX39 HIGH-SPEED SATURATED SWITCH DESCRIPTION The BSX39 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed for very fast switching applications up to 500 mAo
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ic P tot
T stg , T j October 1988
Parameter
Value
Unit
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
45
V
20
V
5
V
Collector Current
500
mA
Total Power Dissipation at T amb ,,; 25°C at T case ,,; 25°C at T case ,,; 100°C
0.36 1.2 0.68
W W W
- 55 to 200
°C
Collector-base Voltage (IE
Storage and Junction Temperature
1/4
243
BSX39 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICES V(BR)CBO V(BR)CEO
.
V(BR)EBO VCE(sat)
.
VBE(sat)
.
hFE
.
IT CEBO CCBO ts ton toll
.. ..
VCE =20 V VCE=20V
Collector-base Breakdown Voltage (IE = 0)
Ie = 10
Collector-emitter Breakdown Voltage (IB = 0)
Ie = 10 mA
Emitter-base Breakdown Voltage (Ie = 0)
IE = 100
244
flA
V
!!A
5
IB = 3 mA IB=10mA IB =30 mA
DC Current Gain
Ie =30 mA Ie = 100 mA Ie =300 mA Ie =30 mA Tamb =- 55°C
V CE VCE VCE VCE
Transition Frequency
Ie = 30 mA 1= 100 MHz
VCE=10V
Ie = 0 1=1 MHz
V EB=0.5V
IE = 0 1=1 MHz
VCB = 5 V
Turn-off Time
!!A
V
Ie = 30 mA Ie = 100 mA Ie = 300 mA
Turn-on Time
Unit
0.1 30
20
Base-emitter Saturation Voltage
Storage Time
Max.
45
IB = 3 mA IB=10mA IB =30 mA IB = 3 mA
Collector-base Capacitance
Typ.
V
!!A
Ie = 30 mA le=100mA Ie = 300 mA Ie = 30 mA T amb = 85°C
Emitter-base Capacitance
Min.
Tamb = 125°C
Collectro-emitter Saturation Voltage
• Pulsed: pulse duration U See test circuit.
2/4
Test Conditions
Collector Cutoll Current (VBE = 0)
=O.4V =0.5V =1V =0.4 V
0.15 0.18 0.39
0.18 0.28 0.5
V V V
0.17
0.3
V
0.75
0.8 0.9 1.1
0.95 1.2 1.7
V V V
40 25 15
60 55 40
120
12 MHz 350
600 pF 7
8
4
5
le=10mA Vcc=10V IB1 =-IB2 = 10 mA
8
18
Ie = 300 mA IBt = 30 mA
9
15
15
25
pF ns ns
Vcc = 10 V
Ie = 300 mA Vcc = 10 V IB1 - IB2 = 30 mA
= 300 J.ls, duty cycle = 1 %.
G'i :"Ifl SGS·THOMSON filliU©I!i@rnIlJ<©'ii'I!iWU©iIiI
ns
BSX39 Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage. G 3US
G 3124
Veelsat 1
VeElsal 1 IV 1 I
-+ +M-h+ I "
Ie ,,101e
I
0.8
, ,
II
I
i
/1/'
0.' .-
Tamb"~
0.2
Ii
,
'/)
V
I
,
IIIII
,
, Ie
10
, '--
1.2
0.8
-
0,4
I---
.
~
I
~r:;; V
'I
--
,
(mA)
Switching Characteristics.
-
Tam b=-5~
! !
,
I'li
!'C='O Ie
1.6
I
~c
i ii
I
!
-
I , Ii
lil
0.6
IV 1
10
,.
, Ie
10'
.\. \.. '\ 20 \.. I\, \.. 16
I I II I I ,I! I I II I
!
II
I
II II II
'" ,,;
I
e ~
• 0
"'
G 3127
CD Current Gain.
'I
lSI (mAla
,I
.-
--
, I
I
iii
:"'!
! ,
--
10'
,
I' I.
l>
..!!.- i .!!..
1-1--
Id
-
I
its:
I
'
,
I:
Tl , ,. Ie finAl
I
Ii
. I
,
I,on~i
I
I
)'
8ttC Iy ,
10 I
1/,
/
Itr=sns/
, I
-+-1"" I-"{.. I i I ["'.... I I ,I ,.
10
,
"
I
.-j" ,
,
, ,
"2----""'- ",-, '. "\..
II
Ie = 10181=-'0IB2
Iii
I
i
(mA)
Switching Characteristics. 6-3126
I
InoJ
,. I
. ill
Iii
'
.·ions./' ,
I
,
!
I
L
_f-'
~
, 10
10'
..I
Ie
(rnA)
High Frequency Current Gain.
.,
G 3129
I VeE = 10V f = 01 MHz
I I
:!
,I I 'I
I
,/
/'
I: II ,
/
, ,
, 10
, , • Ie (mA)
3/4
245
BSX39 Emitter-base and Collector-base Capacitances.
Collector Cut off Current.
G 3130
G-3131
M
c
(pFJ
['..1 , EBO Ie =0
_1+
IE=
,
4
I--
4
I
o•
r-- rt
I
I
1
Ii,
4
.,
~
=
..
;7
z
I ..~.. - -
4
,V
-
I ,.
• 6.
46'
1
10
50
VR(Yl
75
100
Test circuit for ton, toff. VCC =+10V
5- 4620
PULSE GENERATOR: Ir, If< 1.0 ns PW <: 240 ns lIN =
4/4 246
50n
V
"
,
I
CCBO
•' F VeE =20V
, I
1 I
(~A)
•,
" r--
"I
ICES
III I II!
TO OSCILLOSCOPE: Ir< 1.0 ns llN~ 100 Kn
r-
r--
BSX45 BSX46 MEDIUM POWER AMPLIFIERS DESCRIPTION The BSX45 and BSX46 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case, intended for use in medium power general industrial applications.
TO·39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
BSX45
BSX46
Unit
VCES
Collector-emitter Voltage (VBE = 0)
80
100
V
VCEO
Collector-emitter Voltage (IB = 0)
40
60
V
VEBO
Emitter-base Voltage (Ic = 0)
7
V
Collector Current
1
A
Ic 18 Ptot T st9 , Tj October 1988
Parameter
Base Current Total Power Dissipation at T case S 25 'C Storage and Junction Temperature
0.2
A
5
W
- 65 to 200
'C 1/4
247
BSX45-BSX46 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
35 200
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Unit
T amb = 150°C
30 10
nA IlA
T amb = 100 DC
50
!lA
10
nA
VCE = 60 V VCE = 60 V
ICEX
Collector Cutoff Current (VBE = - 0.2 V)
VCE=60V
lEBO
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
Collector-emitter Breakdown Voltage (VBE = 0 )
Ic = 100!lA
Collector-emitter Breakdown Voltage (IB = 0)
Ie = 30 mA
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 !lA
Collector-emitter Saturation Voltage
Ic = 1 A
IB =0.1 A
Base-emitter Voltage
Ic =0.1 A Ic = 0.5 A Ic = 1 A
VCE = 1 V VCE = 1 V VCE = 1 V
Ic =0.1 mA
VCE = 1 V Gr. 6 Gr. 10 Gr. 16 VCE = 1 V Gr. 6 Gr. 10 Gr. 16 VCE = 1 V Gr. 6 Gr. 10 Gr. 16 VCE = 1 V Gr. 6 Gr.10 Gr. 16
V(BR)CES
V(BR)CEO
.
V(BR)EBO
. .
VCE(sat) VBE
hFE
.
DC Current Gain
Ic = 100 mA
Ic = 500 mA
Ic = 1 A
fT CEBO
2/4 248
80 100
V V
for BSX45 for BSX46
40 60
V V
7
V
Ic = 50 mA f = 20 MHz
VCE=10V
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VEB = 0.5 V
=
300115, duty cycle
=
t% .
Typ.
for BSX45 for BSX46
Transition Frequency
• Pulsed: pulse duration .. See test circuit.
Min_
Max.
Collector Cutoff Current (VBE = 0)
ICES
0.7
1
V
1.3
1 1.5 2
V V V
0.75
10 15 25
28 40 90
40 63 100
63 100 160
15 25 35
25 40 60
100 160 250
15 20 30 50
MHz 80
pF
BSX45-BSX46 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter
Ccso
Collector-base Capacitance
Min.
Test Conditions IE = 0 1=1 MHz
Typ.
Max.
Unit
25 20
pF pF
Vcs=10V lor BSX45 lor BSX46
NF ton toff
Ic = 1 00 ~A Rg = 1 kQ
VeE =10V 1=1 kHz
Turn-on Time
Ie = 100 mA IS1 = 5 mA
Vee = 20 V
Turn-off Time
Ie = 100 mA Vee =20 V IS1 = - IS2 = 5 mA
Noise Figure
.. ..
• Pulsed: pulse duration ** See test circuit.
300l1s, duty cycle
=
=
dB 3.5 200
ns
850
ns
1%.
Collector-emitter Saturation Voltage.
Safe operating areas G-1B58
Ie ~ (A)
Ie "'fAX I-+-
rm
' I-~
""" ,'\f ~[\, 2
*REPETITIVE PULSE DUTY CYCLE = 1'It
I~
I
--1-Tease
=
01m
~~
i o.5m m, 2m,
E[
po'e
:
I ~
.......
!
10
Base-emitter Saturation Voltage.
la'
DC Current Gain. G 1870/1
! II
I! 1III
I I f--V",CE=-",'_-+V-+-++H1+--+-H-++-I-fj1 ,
II
1---+--+++++1+1---+'-+-+1-11 I'........-l r-~+HJ~J~~L~-'~, I
I
I
i
I ,
i
0.5
i
'I
10
-
I I:
-
I
BS"5>BSX46-
(v)
"
I 0.5
-
VBE(on)
I--
I
Sm.
1"
I
hFE =10
I--
----c----,--
--
Iv)
O.ln-,s
D~ ~
,
10- 1
III II I II II II
VCE(sat )
IIU
I
I 'I ' !
I I
I
I---+--+-+I-++:,I.JJ.+--H-+l+hl:--'-H-+-I1+f+H! I
I
i
'I'
I
L I
i
I
I
I I
I 10
'a'
3/4
249
BSX45-BSX46 Transition Frequency. 'r
I
I
(MHz )
I
VCE =10\1
-~
4t
I !
l
'
I
I II I, !i
,
\
~
,
7/ I, -~
,
I
I
I ! ,
i
i II
i\ I I
I
50
,
I
J
i
I
I"
I I jl i I :I!
II 'III 10
10'
i
\'
il
I ,~
~'I II
~'! -ffit!II
Ic{mA)
Test circuit for ton, toff. ~---~)-5V (V8[~)
:) +20V (Vee)
)
5-4623 PULSE GENERATOR: lp~10~s
I, $15 ns If$15ns
Zs= 500
4/4
250
TO OSCILLOSCOPE: 1,$15 ns Z'N~ 100 KO
BSX88A HIGH FREQUENCY, HIGH SPEED DESCRIPTION The BSX88A is a silicon planar epitaxial NPN transistor specially designed as high speed saturated logic switch. Itfeatures 20 Volt. VCEO, low saturation voltage and fast switching times from 10 to 300mA.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Parameter
Symbol Vcso
Collector-base Voltage (I E = 0)
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
Ic Ptot T stg , T j
= 0)
= 0)
Value
Unit
40
V
20
V
5.5
V
Collector Current
500
mA
Total Power Dissipation at T amb ~ 25°C at T case ~ 25°C
0.36 1.2
W W
- 55 to 200
°C
Storage and Junction Temperature
November 1988
1/4
251
BSX88A THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
145 486
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
0.3
~
Collector Cutoll Current (VEB =0)
VCE =20 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 ~
40
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 ~
5.5
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
20
V
Collector-emitter Saturation Voltage
Ic = 10 mA Ic = 100 mA
IB = 1 mA Is = 10 mA
Base-emitter Saturation Voltage
Ic = 10 mA Ic = 100 mA
IB = 1 mA Is = 10 mA
0.72
0.77
DC Current Gain
Ic =0.5 mA Ic=10mA Ic = 100 mA
VCE = 1 V VCE = 1 V VCE = 1 V
15 30 35
30 50 55
High Frequency Current Gain (I = 100 MHz)
Ic = 30 mA
VCE=10V
3.5
5.8
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs =0.5 V
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =0.5 V
Change Storage Time Constant
Ic=IB1 =IB2=10mA
ton "
Turn-on Time
Ic=10mA VSE = - 2 V
toft "
Turn-off Time
Ic = 10 mA VBE = - 2 V
ICES
,
V(BR)CEO VCE(sat) VSE(sat)
, ,
,
hFE
hfe
ts
"
• Pulsed: pulse duration .. See test circuit.
= 300IlS, duty cycle
=
0.18 0.39
V V
0.8 1.2
V V
3
5
pF
7
8
pF
20
ns
IB1 =3 mA
30
ns
IS1 =3 mA
70
ns
1% .
DC Pulse Current Gain VS. Collector Current.
Collector Saturation Voltage VS. Collector Current.
G 4513
L.-
VeE = SV
~ec
eo
60
40
V
J I I
V I-"""""
252
Ie'" 101 8
t
1\
/
0.6
II
1\
"'- f',
/ 1/
0.4
3~
25·C
-I--.
II II 10
2/4
VCE{sat )
~
I
~ 1--":55· C
20
II
0.2
-
55"C
-
, 100
Ie (mA)
10
. , .II
100
,
.
'c(mA)
BSX88A Base Saturation Voltage vs. Collector Current.
High Frequency Current Gain vs. Collector Current. G
G 4510
I
e
t = 100MHz
I VeE'" 10V ~ l'
-
?~/ V
V / VeE :::5V V
I--~--+-_~-+-Fi~
I--f-:-I- L;-
0.8
~_f---I-"
,
125'
0.6
1-'='=-+-+-++1·+++t----t-t-H
0.4
I----+-+-f---H--t++t--- - .
0.2
1-----1--1--
V
--1+++++--+-
,0
V
l"
V
10
'00
Input and Output Capacitance vs. Reverse Bias Voltage.
LeImA)
Switching Times vs. Collector Current. G - 4508
G-4512
C (pF )
I
~ ........
"
I
j j IC:lE"O
I iii j
II
i! i I!
I ( ns )
I,
i ,: i
,s
!
!
e CBO ,
I II ii Ii
'C=10181 '" 10 '82
-
Vee= 3V
\.
I
~BO
,.......,
"-
1\ I, ,
'2
~
L
'~
_e-
Id
r--
Is
If
-
I' ,I 0.'
4511
I I
5
10
50
100
3/4
253
BSX88A TEST CIRCUITS Test circuit for ton, toff,
VOUT
FROM Mrrcury Helay
270n
"'ul~e
Sarnj.ll;nCJ
O!;.cillo~ope
Generator or ~uiyalent (Source impedance = 50.Jl., V1N Ri!:.e Time
TO LUIHdtroll
or
equiva.lent
<, n sec
~21V~,-______
+
VCC =3Vdc
ton V SB =-4Vdc
1-20 Vdc
~+-jj'0"'19:~:
V'N=-21Vp,p
VOUT 5- 4613
--'off-
Test circuit for ts,
'A'
TO OSCILLOSCOPE Z,N;SOJl.
PULSE GENERATOR YIN t r
1r~
1ns.
PW ~ lOOns. DC < 2'1. + 6Y-----.>L-
o
-4Y---
5-4614
4/4
254
toft VBB =.t-17Vdc Y,N =-20 Yp-p
BSX93 HIGH-FREQUENCY SATURATED SWITCH DESCRIPTION The BSX93 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed specifically for high-speed saturated switching applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (I E = 0)
40
V
VCES
Collector-emitter Voltage (VBE = 0)
40
V
VCEO
Collector-emitter Voltage (IB = 0)
15
V
V EBO
Emitter-base Voltage (Ic = 0)
5
V
150
mA
Ic
Parameter
Collector Current
ICM
Collector Peak Current (t = 10 flS)
500
mA
P tot
Total Power Dissipation at T amb S 25°C at T case S 25°C
0.36 1
W W
- 65 to 200
°C
T stg , TI
Storage and Junction Temperature
December 1988
1/4
255
BSX93 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
175 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Test Conditions
Parameter
Min.
Typ.
Max.
Unit
0.2 70
~A
Collector Cutoll Current (IE = 0)
Vcs = 20 V Vcs =20 V
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ic=10~A
40
V
V(SR)CES *
Collector-emitter Breakdown Voltage (VSE = 0)
Ic = 1 0 ~A
40
V
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
15
V
V(SR)ESO
Collector-emitter Breakdown Voltage (Ie = 0)
IE = 10 ~
5
V
VCE(sa!) *
Collector-emitter Saturation Voltage
Ic = 10 mA
Is = 1 mA
Icso
T amb = 150 DC
Base-emitter Voltage
Ie = 10 mA
VCE = 1 V
Base-emitter Saturation Voltage
Ic = 10 mA
Is = 1 mA
DC Current Gain
Ic = 10 mA VCE = 1 V Ic = 100 mA VCE = 1 V Ic=10mA VCE = 1 V T amb = - 55 DC
Transition Frequency
Ic = 10 mA 1= 100 MHz
VCE=10V
CESO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEs = 0.5 V
Ceso
Collector-base Capacitance
IE = 0 1=1 MHz
Ves = 5 V
ts
Storage Time
Ie = 10 mA Vee=10V IS1 =-ls 2 =10mA
ton * *
Turn-on Time
le=10mA IS1 = 3 mA
Vcc = 3 V
toff **
Turn-oIl Time
Ie = 10 mA IS1 = 3 mA
Vce = 3 V IS2 =-1.5 mA
VBE * VSE(sat) * h FE *
IT
* Pulsed: pulse duration = ** See test circuit.
2/4 256
3'00
~s,
duty cycle
=
1%
0.15
0.2
~A
V V
0.7 0.72
0.75
0.85
40 20
80 70
120
20
40
400
650
V
MHz
3.8
6
pF
2.5
4
pF
6
13
ns
9
12
ns
13
18
ns
BSX93 DC Current Gain.
Collector-emitter Saturation Voltage. G-3132
E
II 111111
11111111 II II
nmnr
VeE= v
1D!~1
120
I I
i.,..-
10 0 I'
\
I 25"C
80
I 1 1
'17 60
'I I
0
I'\:
~55·
I-
0
10
10' lelmA)
Base-emitter Saturation Voltage.
Emitter-base and Collector-base Capacitances. G- 15
e (pF)
12~~~~~+U~~H+~-++W~
I-t
,Ii:
f--~ ~rO 111111r---. f--
Q4~
r--
IE =0
I',
1
0.2 ~ 10-1
CCBO
1ir 4 68
2
468
1
2
"68
2
102
10
46.
4 68
Ie (mA)
High Frequency Current Gain.
10
Switching Characteristics. ·36
hfe f "100MHz VeE =lOY
-
,~ [\'
......
I..-
!
-
~r
i
II I:! . :
10
./
W,_III I_ tr
I--
"" 1'-. '
6.
10
4
6 • (C(mA)
Iifi '!JI SliS·THOMSON I/jJUCII@IMI:'ii'II@1l1]U!:$
10
I 'I"
"-.if'
10'
le lmA)
3/4
257
BSX93 TEST CIRCUIT Test Circuit for ton, toff.
VIN(~_--+_31·3 Killl---.....-_t::
5011
VINtr < 1 n50
TO O~ILlOSCOPE INPUT IMPEDANCE=
SOURCE IMPEOANCE=5011
tr~ 'liS
PULSE GENERATOR
son
PW ~ JOOns. DC <2"'.
VBB=t-12V V1N =-1SV
Vss=-JV V1N::+1SV
ou'N -10~,
,-;:~'k------l0'"
VOUT
go'"
'on
4/4
258
t---------.....- - - - 4 - - - - - 4 - - - - '
.L...-+--'-l----90",
BSY53 BSY54 GENERAL PURPOSE AMPLIFIERS DESCRIPTION The BSY53 and BSY54 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case, intended for use in general purpose amplifiers.
TO·39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Parameter
Symbol
Value
Unit
VCBo
Collector-base Voltage (IE = 0)
75
V
VCEO
Collector-emitter Voltage (IB = 0)
30
V
VEBO Ic P tot
TS'g, T j
Emitter-base Voltage (IE = 0)
7
V
Collector Current
750
mA
Total Power Dissipation at T amb <; 25°C at T case <; 25°C
0.8 3
mW mW
- 65 to 200
'C
Storage and Junction Temperature
November 1988
1/3
259
BSY53-BSY54 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
58 220
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICBo lEBO VCE
(sat)
VBE
(sat)
hFE
.
. .
Parameter
Test Conditions
Collector Cutoff Current (IE = 0)
VCB =60 V VCB =60 V
Emitter Cutoll Current (Ic = 0)
VEB = 5 V
Collector-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA
IB=15mA 18 = 50 mA
Base-emitter Saturation Voltage
Ic=150mA
IB = 15 mA
DC Current Gain
lor BSY53 Ic = 0.1 mA Ic = 1 mA Ic = 10 mA Ic = 150 mA Ic = 500 mA lor BSY54 Ic = 0.01 mA Ic =0.1 mA Ic = 1 mA Ic = 10 mA Ic=150mA Ic = 500 mA
Min.
Typ.
Max.
Unit
10 10
nA IlA
10
nA
0.15 0.5
0.6 1.2
V V
0.95
1.2
V
T amb = 150°C
VCE=10V VCE =10V VCE=10V VCE=10V VCE=10V VcE =10V VCE=10V VCE=10V VCE=10V VCE=10V VCE=10V
20 35 40 20 20 35 75 100 40
40 50 65 120 35 55 80 100 135 300 60
Transition Frequency
Ic = 50 mA 1= 50 MHz
VCE =10V
100
MHz
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
10
pF
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =0.5 V
23
pF
Noise Figure
Ic = 0.3 mA Rs = 1.5 kn VCE=10V I = 30 Hz to 15 kHz
3
IT
NF
hIe
hie
Small Signal Current Gain
Input Impedance
hre
Reverse Voltage Ratio
hoe
Output Impedance
• Pulsed: pulse duration = 300 fls, duty cycle = 1 %.
2/3
260
8
Ic = 1 mA 1=1 kHz
VCE=10V lor BSY53 lor BSY54
30 50
150 250
Ic = 1 mA 1=1 kHz
VCE=10V lor BSY53 lor BSY54
0.8 1.6
4.5 9
Ic = 1 mA 1=1 kHz
VCE=10V
Ic = 1 mA 1=1 kHz
VCE=10V lor BSY53 lor BSY54
dB
kn kn
3 X 10- 4
3.5 4.5
10 12.5
IlS IlS
BSY53-BSY54 DC Normalized Current Gain (for BSY53 only).
DC Normalized Current Gain (for BSY54 only).
1.6
1.2
F-t--t+Hl,..-!"""
0.8
0.4
10-'
10'
10
Ie (rnA)
NF VS. Collector Current
Collector-emitter Saturation Voltage. 'CE(sat)
(V I
11
:===f= !
,
I
I
I
11/
I
II
i
1/
Ii
I'
i
I
,
j! !
NF (dB)
,
I
i
10-'
t-
I
r--
/
..
10'
~
· 10-'
I I
Iii
I
10-1
,.
,1
II , ,. 1
Ie
(rnA)
y
1
10-'
It-
I
Vho • I.....
"""'"
/1
Power Rating Chart.
·· ..... f-
,i ,
Ie (mAl
Normalized h Parameters.
i'-
~'1, .
Tam b=2S"C
I
III
,
II
I
I
t-In
Ie =lOla
I
II
I
~f~ O~Olstooc15kHzl
1
I
I
10
........
Rg =1.5kfl VeE =5 tolOV
NI
f---
II Ill!1
I
I
6------1-
"=:::::=: -
I
L
I~ -r-r-
th . -case =5S"ClW
ht.
h,.
./
hie
V VeE = IOV f =1kHz Tam b=2S·C
II
..
Ie (rnA)
~
""'I SCS-THOMSON ~~©IiiI©rn~rn©1i'IiiI©Ill~©®
40
80
120
3/3
261
I I
I I I I I
I I I
I I I
I I
I I I I I I I
I I I
I I I
I I
I I I
I I I I
I I I
I I I
I I
I I I
I I I I
I I I
I I I
I I
I I I
I I I I
I I I
I
I I
BSY55 BSY56 GENERAL PURPOSE AMPLIFIERS DESCRIPTION The BSY55 and BSY56 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case, intended for use in high performance amplifier, oscillator and switching circuits,
TO·39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
120
V
VCEO
Collector-emitter Voltage (IB = 0)
80
V
VEBO
Emitter-base Voltage (Ic = 0)
7
V
Collector Current
500
mA
Total Power Dissipation at T amb ,,; 25°C at T case"; 25°C
0,8 3
W W
- 65 to 200
°C
Ic Ptot
T stg , Tj
Parameter
Storage and Junction Temperature
November 1988
1/3
263
BSV55-BSV56 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
58 220
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
Parameter
Test Conditions
Collector Cutoff Current (IE = OJ
Vcs =90 V Vcs =90V
Emitter Cutoff Current (Ic = 0)
VES = 5 V
VCE (sat)'
Collector-emitter Saturation Voltage
Ic=150mA
Is=15mA
VSE (sat)'
Base-em itter Saturation Voltage
Ic = 150 mA
IB=15mA
Icso IEso
hFE
,
DC Current Gain
for BSY55 Ic =0.1 mA Ic = 1 mA Ic = 10 mA Ic = 150 mA Ic = 500 mA for BSY56 Ic=0.1mA Ic = 1 mA Ic = 10 mA Ic=150mA Ic = 500 mA
Min.
Typ.
Max.
Unit
10 10
nA
10
nA
0.2
0.6
V
1
1.3
V
T amb = 150 'C
VCE=10V VcE =10V VCE=10V VCE=10V V cE =10V VcE =10V VCE=10V VcE =10V VcE =10V VCE=10V
20 35 40
jJA
50 60 65 120 20
35 75 100
100 125 180 300 35
Transition Frequency
Ic = 50 mA f = 50 MHz
VcE =10V
100
MHz
CCBO
Collector-base CapaCitance
IE = 0 f = 1 MHz
VCB=10V
10
pF
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VEB = 0.5 V
23
pF
Noise Figure
Ic = 0.3 mA Rg = 1.5 kQ VCE=10V f = 30 Hz to 15 kHz
6
dB
fT
NF
hIe
hie
Small Signal Current Gain
Input Impedance
264
VCE=10V for BSY55 for BSY56
30 60
150 250
Ic = 1 mA f = 1 kHz
VCE=10V for BSY55 for BSY56
0.8 1.6
5 9
hre
Reverse Voltage Ratio
Ic = 1 mA f = 1 kHz
hoe
Output Admittance
Ic = 1 mA f = 1 kHz
, Pulsed: pulse duration
2/3
Ic = 1 mA f = 1 kHz
=
300 ~s, duty cycle
=
1 %.
3 X 10- 4
VCE=10V VCE=10V for BSY55 for BSY56
kQ kQ
2 3
7 10
IlS IlS
BSV55-BSV56 DC Normalized Current Gain (for BSY55 only).
DC Normalized Current Gain (for BSY56 only).
Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage. (,_3207
G ]208
VCE(sat )
I V)
:--+~ f-+, H-
·
---+-H', ,, i , y : _~ ..l
I
,
·
I
. I II I ,I I I'I': I I :
V:
ll~
;
I
1/'
)(
T
i
I
,, i
,
Ie :101a Tam b=2S'C
I
I
I
I
I
: I
i
1.2
I
Normalized h Parameters.
I !
i
-
I
~
L
'
-
Vi
, ,
I
I
I
f---
,
;
L'il i j, ,I
I
I I
,
4
Ii
I
!I." II
, L ll' , ,
j
, ,
10
I
I
,
It =101 8 Tamb =2S'C i
_+_L
0.4
II
I-"""""
I
-++
-
I! Ie (rnA)
,,
-r-
0.8 0.6
I , I
:
!
10
·· ·
"aElsatl Iv)
4
Ie (mA)
10'
Power Rating Chart. G 3205
6-3206
-;
,
~
if
Vh o•
........
,
--"::r-... "I"-
Vi
,
;
I
i
II
~ ~
th - -case =58'C/W
hr~ i- :j:
I I
,....
I
V ~
VeE = lOV
j
~hil'
,,
ia~=~~5·C i I
III
I I
I,
" 'i
I:
i
.. r
Ie (rnA)
40
80
120
160
T (Ie)
3/3
265
2N708 HIGH-SPEED SATURATED SWITCH DESCRIPTION The 2N708 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case, designed for very fast switching applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (I E = 0)
40
V
VCEO
Collector-emitter Voltage (lB = 0)
15
V
VEBO
Emitter-base Voltage (Ic = 0)
5
V
Collector Current
200
mA
Total Power Dissipation at T amb ,; 25 'C at T case'; 25 °C
0.36 1.2
W W
- 65 to 200
°C
Ic P tot
Tstg , Tg October 1988
Parameter
Storage and Junction Temperature
1/2
267
2N708 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBO
VcB =20V VCB =20 V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100
Collector-emitter Breakdown Voltage (IB = 0)
T amb = 150°C
!lA
Typ.
Max.
Unit
25 15
!lA
nA V
Ic = 10 mA
15
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=10~A
5
V
Emitter Cutoff Current (Ic = 0)
VEB = 4 V
Collector-emitter Saturation Voltage
Ic = 10 mA
Base-emitter Saturation Voltage
Ic = 10 mA
DC Current Gain
Ic =0.5 mA VCE = 1 V Ic = 10 mA VCE = 1 V T amb = - 55°C Ic = 10 mA VCE = 1 V
15 30 15
-
High Frequency Current Gain
Ic = 10 mA f = 100 MHz
VcE =10V
3
-
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB=10V
6
pF
ts
Storage Time
Ic = 10 mA Vcc = 10 V IB1 =-I B2 = 10 mA
25
ns
ton
Turn-on Time
Ic = 10 mA IB1 = 3 mA
Vcc=10V
40
ns
toll
Turn-off Time
Ic = 10 mA IB1 = 3 mA
Vcc=10V IB2 =- 1 mA
75
ns
V(BR)CEO
.
V(BR)EBO
lEBO VCE(sat) VBE(sat) hFE
.
hie CCBO
. .
• Pulsed: pulse duration = 300 fls. duty cycle = 1 %.
268
Min.
40
V(BR)CBO
2/2
Test Conditions
Collector Cutoff Current (IE = 0)
100
nA
IB = 1 mA
0.4
V
IB = 1 mA
0.9
V
120
-
2N718A 2N956 AMPLIFIERS AND SWITCHES DESCRIPTION The 2N718A and 2N956 are silicon planar epitaxial NPN transistors in Jedec TO-18 metal case, intended for high-speed switching and amplifier applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCER
Collector-emitter Voltage (RBE " 1012)
VEBO
Emitter-base Voltage (Ic
Ic Ptot T stg , Tj October 1988
= 0)
Collector Current Total Power Dissipation at T amb " 25°C at T case" 25°C Storage and Junction Temperature
Value
Unit
75
V
50
V
7
V
1
A
0.5 1.8
W W
- 65 to 200
°C 1/3
269
2N718A-2N956 THERMAL DATA 97
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
350
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Test Conditions
Parameter
Min.
Typ.
Max.
Unit
T amb = 150°C
10 10
~
for 2N718A for 2N956
10 5
nA nA
nA
Collector Cutoff Current (IE = 0)
VCB=60V VCB =60 V
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic=100~
75
V
V(BR)CER *
Collector-emitter Breakdown Voltage (RBE " 100)
Ic = 10 mA
50
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 ~
7
V
VCE(sa!) *
Collector-emitter Saturation Voltage
Ic = 150 mA
IB = 15 mA
0.24
1.5
V
VBE(sat) *
Base-emitter Saturation Voltage
Ic = 150 mA
IB = 15 mA
1
1.3
V
DC Current Gain
for 2N718A Ic =0.1 mA Ic = 10 mA Ic = 150 mA Ic = 500 mA Ic = 10 mA T amb = - 55°C for 2N956 Ic = 0.01 mA Ic =0.1 mA
ICBo lEBO
hFE *
• Pulsed: pulse duration
2/3 270
= 300 fls. duty cycle = t
%.
-
VCE=10V VcE =10V VCE=10V VCE=10V VCE =10V
VCE=10V VCE=10V
20 35 40 20
120
-
20
-
20 35
-
2N718A-2N956 ELECTRICAL CHARACTERISTICS (continued)
.
Symbol hFE
hfe
fT
Parameter DC Current Gain
Small Signal Current Gain
Transition Frequency
Test Conditions for 2N956 le=10mA le=150mA Ie =500 mA Ie =10 mA T amb = - 55°C for 2N718A Ie = 1 mA Ie = 5 mA for 2N956 Ic = 1 mA Ic = 5 mA Ie =50 mA I =20 MHz
VeE=10V VeE =10V VeE=10V VeE =10V
75 100 40
Typ.
Max.
Unit -
300
-
35 VeE = 5 V VCE=10V
30 35
150 150
-
VCE = 5 V VCE=10V
50 70
300 300
-
-
VCE",10V for 2N718A lor 2N956
CEBO
Emitter-base Capacitance
Ic =0 f = 1 MHz
VEB=0.5V
CeBo
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB=10V
Noise Figure
Ic = 300 j.lA f = 1 kHz
VCE=10V
NF
Min.
for 2N718A for 2N956
MHz MHz
60 70 80
pF
25
pF
12 8
dB dB
• Pulsed: pulse duration = 300 fLs, duty cycle = 1 %.
~ SGS-ntOMSON ... .,I IlIilO©Ii@~~I<©'iI'IiI@II!OIl$
3/3
271
2N720A HIGH VOLTAGE GENERAL PURPOSE DESCRIPTION The 2N720A is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is suitable for a wide variety of amplifier and switching applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
120
V
VCEO
Collector-emitter Voltage (lR = 0)
80
V
VEBO
Emitter-base Voltage (Ic = 0)
Ic
P tot T stg , Tj October 1988
Parameter
7
V
Collector Current
500
mA
Total Power Dissipation at T amb S 25°C at T case S 25°C
0.5 1.8
W W
- 65 to 200
°C
Storage and Junction Temperature
1/2
273
I
'"
2N720A THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
97.2 350
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
10
nA
Collector Cutoff Current (IE = 0)
Vcs =90 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 ~
120
V
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 30 mA
80
V
V(BR)ESO
Emitter-base Breakdown Voltage (IE = 0)
IE= IOO fl A
7
V
Emitter Cuttoff Current (IE = 0)
VES = 5 V
VCE(sat) *
Collector-emitter Saturation Voltage
Ic = 50 mA Ic = 150 mA
VBE(sat) *
Base-emitter Saturation Voltage
Icso
10
nA
IB = 5 mA Is=15mA
1.2 5
V V
Ic = 50 mA Ie = 150 mA
Is = 5 mA Is=15mA
0.9 1.3
V V
DC Current Gain
Ie = 100 ~ Ic=10mA Ie = 150 mA
VCE=10V VCE=10V VCE=10V
20 35 40
120
High Frequency Current Gain
Ic = 50 mA f = 20 MHz
VCE=10V
2.5
-
CeBo
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB=10V
15
pF
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VES = 0.5 V
85
pF
IESO
hFE *
hie
• Pulsed: pulse duration
2/2 274
= 300 fls. duty cycle = 1 %.
2N914 SATURATED LOGIC SWITCH AND VHF AMPLIFIER DESCRIPTION The 2N914 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is primarily a universal switch but it is also an excellent high speed, high gain logic and memory driver at collector currents up to 500 mAo
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Value
Unit
VCBO
Collector-base Voltage (IE = 0)
40
V
VCER
Collector-emitter Voltage (RBE " 100)
20
V
VCEO
Collector-emitter Voltage (IB = 0)
15
V
Parameter
Symbol
VEBO Ie Ptot
T stg , T j January 1989
5
V
Collector Current
500
mA
Total Power Dissipation at T amb " 25°C at Tease" 25°C at Tease" 100°C
0.36 1.2 0.68
W W W
- 65 to 200
°C
Emitter-base Voltage (Ie = 0)
Storage and Junction Temperature
1/3
275
2N914 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
T amb = 150°C
25 15
nA /-lA
T amb = 125°C
10
/-lA
100
nA
Collector Cutoff Current (IE = 0)
Vcs =20V Vcs =20 V
ICEX
Collector Cutoff Current (VSE = - 0.25 V)
VCE =20 V
IEso
Emitter Cutoff Current (Ic = 0)
VES = 4 V
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ic=1/-lA
40
V
V(SR)CES
Collector-emitter Breakdown Voltage (RsE s 10 Q)
Ic = 10 mA
20
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic =30 mA
15
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=10/-lA
5
V
Collector-emitter Saturation Voltage
Ic = 20 mA Ic = 200 mA
IB = 2 mA Is =20 mA
Base-emitter Saturation Voltage
Ic = 10 mA
Is = 1 mA
DC Current Gain
Ic = 10 mA VCE = 1 V Ic =500 mA VCE = 5 V Ic = 10 mA VCE = 1 V T amb = - 55°C
Transition Frequency
Ic = 20 mA f = 100 MHz
VCE=10V
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VES = 0.5 V
CCBO
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs=10V
ts
Storage Time
Ic = 20 mA Vcc = 5 V IB1 =-l s2 =20 mA
ton
Turn-on Time
Ic = 200 mA IS1 = 40 mA
Vcc = 5 V
toll
Turn-off Time
Ic = 200 mA IB1 = 40 mA
Vcc = 5 V IS2 =- 20 mA
Icso
V(SR)CEO
.
V(SR)EBO VCE(sat) VSE(sat) hFE
.
fT
.
.
• Pulsed: pulse duration
2/3
276
=
300 fls, duty cycle
=
1 %.
0.2 0.4
0.25 0.7
V V
0.7
0.74
0.8
V
30 10
55 17
120
-
12
28
-
300
370
MHz
9
pF
4.5
6
pF
13
20
ns
25
40
ns
25
40
ns
2N914 DC Current Gain.
Collector-emitter Saturation Voltage.
Collector-base and Emitter-base Capacitances.
Transition Frequency.
'T
,--
(MHz )1-
400
300
I-I-
.,
--
,-
---
I
-;..;.-
1-
100
-
I
I 200
-
VCE =10V
~ T
I-~Y'~:-
I I
--[-
,
\ -\ ~
-_.-
+t 10
tl 10'
3/3
277
I I I I I I I I I I I I I
I I I I
I I I I
I I
I I I I I I I I I I I I I I
I I I I
I I I
I I I I I I I I I I I I I I I I I
I I I
I I I I
I I I I I I I I I I I I I I I I I
I I I
I I I I
I I I I I I I I I I I I I I I I
I I I I I
2N918 HIGH-FREQUENCY OSCILLATORS AND AMPLIFIERS DESCRIPTION The 2N918 is a silicon planar epitaxial NPN transistors in Jedec TO-72 metal case. It is designed for low-noise VHF amplifiers, oscillators up to 1 GHz, non-neutralized IF amplifiers and non-saturating circuits with rise and fall times of less than 2.5 ns.
TO-72
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
30
V
VCEO
Collector-emitter Voltage (lB = 0)
15
V
VEBO
Emitter-base Voltage (Ic = 0)
3
V
Collector Current
50
mA
Total Power Dissipation at T amb <; 25 'C at T case <; 25 'C
200 300
mW mW
- 65 to 200
'C
Ic
Ptot T stg , T j January 1989
Parameter
Storage and Junction Temperature
1/4
279
2N918 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
584 875
ELECTRICAL CHARACTERISTICS (Tamb = 25°C unless otherwise specified) Symbol
Parameter
Test Conditions
Typ.
Max.
Unit
10 1
nA flA
V CB = 15 V VCB = 15 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ie = 1 flA
30
V
VCEO(sus)
Collector-emitter Sustaining Voltage (IB = 0)
Ic = 3 mA
15
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10 flA
3
V
VCE(sa!)
Collector-emitter Saturation Voltage
Ic = 10mA
IB = 1 mA
0.4
V
VBE(sa!)
Base-emitter Saturation Voltage
Ie = 10 mA
IB = 1 mA
1
V
Tamb = 150°C
DC Current Gain
Ic = 3 mA
VCE = 1 V
20
50
Transition Frequency
Ic = 4 mA 1=100MHz
VCE=10V
600
900
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB = 0.5 V
CCBO
Collector-base Capacitance
IE = 0
1= 1 MHz VCE = 0 VCE=10V
hFE
IT
pF
3 1.7
pF pF
6
dB
Ic = 1 mA Rg = 400 Q
VCE = 6 V 1= 60 MHz
G pe
Power Gain
Rg = 50
1= 200 MHz VCE = 12V
15
21
dB
Po'
Output Power
Ic = 12 mA 1= 500 MHz
VCB = 10V
30
40
mW
Collector Efficiency
Ic = 12 mA 1= 500 MHz
VCB=10V
See test circuit.
280
MHz 2
Noise Figure
11
2/4
1.8 1
-
NF
Q
Ic = 6 mA
*
Min.
Collector Cutoll Current (IE = 0)
ICBo
25
%
2N918 DC Current Gain.
Transition Frequency. r-r-,..,-,-r-r--,,--,-r-r--,,--·TTl
IT
1J
0.5
10
Input Admittance vs. Collector Current.
20
Forward Transadmittance vs. Collector Current. G 2046
I
I
-
-
_L 1=100 MHz
'=10'MHz
80
,./ VCE =5V
b~OV VCE~
~~
........ 60
P'
_I-"'
./
V
,./
10V
VCE =5V 10V
Y. '/
'/
20
o~
~V
A ~
'0
V
L_ V" ~ VJ../ VCE·~
-b
._-
Reverse Transadmittance vs. Collector Current.
Output Admittance vs. Collector Current.
I t=100MHz
1.6
--
CE
<
1.2
f-100MHz
V
5V
0.4
-
;,
~
IOV
0.8
-g
:5V
.e:; ~
;..0-
--
-
VCE =5V
,_
IOV - -
3/4
281
2N918 Forward Transadmittance vs. Frequency.
Input Admittance vs. Frequency. V11e (mS)
~--l-H---H~~-+-
I---+-+--' II_IH'-f-H 111ft------'_'--'-I-i-I_till ~--l_~---Hi-t+lit+:!--=---:---"--,--,-t'+:+-+1 I
V21 •
~--l-;'-+---H
(mS)
I,
1.1"--+---;--,++-++1-+1 ~~:::~
100
l'
80
"
i: !"-!
II
::
1
:
; : :
: I I I!: I
! I!
I
IS
r-- _-,-__;.J XU
'0
10
i
7-
1,11
I
o
10
f(MHz)
Reverse Transadmittance vs. Frequency.
""-,
:
I"
;~Jl 11' i i~
I
I
-20
10'
:
:=-- --FIt:
20
10
' :I!I
Ii ~ I~! , iii; Ii " , ' TN
, - - - - - - , - '..--::::'
f (MHz)
10'
Output Admittance vs. Frequency.
(;-2049
V12 • (mS)
f--+-II_HI_If-t'++ ! It.---::,,-:::,;--Il'i,-W,,-t JJJ, , i ' .lI'c=5mA : I' ;
I
)
Ic=5mA
i IIVCE 'oIov ! ! i : I i i ' ,j
i
i i i I! I,
I!
I II
,,!
11:
!i
J 1/
I
J
!
II,
/
/' , 10
10'
10'
10
f (MHz)
5~
+-_Q+-... r+_-+-_7....
1000 pF
I 282
OUT
11000
RFC
IPF
5-1570
Gi SGS-THOMSON ~I ffiiJOClRl@lru!.mIC1I'lI@!I!O@$
I
.
gj ! I ,
fo,
500 MHz Oscillator Test Circuit.
4/4
I I:
VCE "'10V
f (MHz)
2N930 LOW-LEVEL, LOW-NOISE AMPLIFIERS DESCRIPTION The 2N930 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case, designed for use in high performance, low-level, low-noise amplifier applications.
TO·18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
VCBO
Collector-base Voltage (IE
=
0)
VCEO
Collector-emitter Voltage (IB
=
VEBO
Emitter-base Voltage (Ic
Ic Ptot T stg , Ti October 1988
=
0)
0)
Collector Current Total Power Dissipation at T amb at T case
25 "C = 25°C
=
Storage and Junction Temperature
Value
Unit
45
V
45
V
5
V
30
mA
0.3 0.6
W W
- 55 to 200
"C 1/2
283
2N930 THERMAL DATA 292 583
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Min_
Test Conditions
Typ_
Max.
Unit
10
nA
10 10
nA f(A
VCE = 5 V
2
nA
Emitter Cutoff Current (lc = 0)
VEB = 5 V
10
nA
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
45
V
V(BR)ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10 nA
5
V
VCE(sa!) *
Collector-emitter Sustaining Voltage
Ic = 10 mA
ICBo
Collector Cutoff Current (IE = 0)
VcB =45V
ICES
Collector Cutoff Current (VBE = 0)
VCE =45 V VCE=45V
ICEO
Collector Cutoff Current (Is = 0)
lEBO
Tamb = 150°C
IB =0.5 mA
1
V
VSE *
Base-emitter Voltage
Ic = 10 mA
Is =0.5 mA
0.6
1
V
hFE *
DC Current Gain
Ic=10f(A Ic =0.5 mA Ic=10mA Ic=10f(A Tamb =- 55°C
VCE VCE VCE VCE
100 150
300
-
Small Signal Current Gain
Ic = 1 mA f = 1 kHz
VCE = 5 V
Transition Frequency
Ic =0.5 mA f = 30 MHz
VCE = 5 V
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs = 5 V
Noise Figure
Ic=10f(A f = 1 kHz
VCE = 5 V Rg = 10 kQ
hfe
fT CCBO NF
* Pu Ised : pulse duration
2/2
284
= 300 Ils. duty cycle = 1%
= = = =
5 5 5 5
V V V V
600
-
20 150
600
MHz
30
8
pF
3
dB
2N1613 2N1711 SWITCHES AND UNIVERSAL AMPLIFIERS DESCRIPTION The 2N1613 and 2N1711 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case. They are designed for use in high-performance amplifier. oscillator and switching circuits. The 2N1711 is also used to advantage in amplifiers where low noise is an important factor. ~ Products approved to CECC 50002-104 avai-
lable on request. TO-39
INTERNAL SCHEMATIC DIAGRAM
c B""
I I.....
E
ABSOLUTE MAXIMUM RATINGS Parameter
Symbol Vcso
Collector-base Voltage (IE = 0)
VCER
Collector-emitter Voltage (RSE
VESO
Emitter-base Voltage (Ic = 0)
Ic Ptot
T stg • Tj January 1989
$;
100)
Unit
75
V
50
V
7
V
500
rnA
$;
0.8
$;
3 1.7
W W W
- 65 to 200
°C
Collector Current Total Power Dissipation at T amb at T case at T case
Value
25°C 25°C $; 100°C
Storage and Junction Temperature
1/3
285
2N1613-2N1711 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
58 219
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBo lEBo V(BR) CBO V(BR)CER
·
V(BR) EBO VCE (sat)
·
VBE (sat)
·
hFE
hFE
.
.
hIe
It
Test Conditions
Collector Cutoff Current (IE = 0)
VCB = 60 V VCB = 60 V
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
Min.
Typ.
Max.
Unit
T amb = 150°C
10 10
nA j.lA
lor 2N1613 lor 2N1711
10 5
nA nA
Collector-base Breakdown Ic =0.1 mA Voltage
75
V
Collector-emitter Breakdown Voltage (RBE ~ 100)
Ic = 10 mA
50
V
Emitter-base .Breakdown Voltage (Ic = 0)
IE = 0.1 mA
7
V
Collector-emitter Saturation Voltage
Ic = 150 mA
IB = 15 mA
0.5
1.5
V
Base-emitter Saturation Voltage
Ic = 150 mA
IB = 15 mA
0.95
1.3
V
lor 2N1613 Ic = 0.Q1 mA Ic =0.1 mA Ic=10mA Ic = 150 mA Ic = 500 mA Ic = 10 mA Tamb =-55 °C
VCE=10V VCE=10V VCE=10V VCE=10V VcE =10V VCE=10V
lor 2N1711 Ic = 0.01 mA Ic =0.1 mA Ic = 10 mA Ic=150mA Ic = 500 mA Ic = 10 mA T amb = 55°C
VCE=10V VCE=10V VcE =10V VCE=10V VCE=10V VCE=10V
DC Current Gain
DC Current Gain
Small Signal Current Gain lor 2N1613 Ic = 1 mA 1=1 kHz lor 2N1711 Ic = 1 mA 1=1 kHz Transition Frequency
Ic =50 mA 1= 20 MHz
20 35 40 20
35 50 80 80 55
20
35
20 35
60 80 130 130 75
120
300
65 VCE=10V 30
70
150
70
135
300
60 70
80 100
VCE=10V VCE=10V lor 2N1613 lor 2N1711
MHz MHz
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB = 0.5 V
50
80
pF
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
18
25
pF
• Pulsed: pulse duration = 300 f!S, duty cycle
2/3
286
= 1 %.
2N1613-2N1711 ELECTRICAL CHARACTERISTICS (continued) Symbol NF
hie
h re
hoe
Parameter Noise Figure
Input Impedance
Reverse Voltage Ratio
Output Admittance
Test Conditions
Typ.
Max.
Unit
VCE=10V f = 1 kHz for 2N1613 for2N1711
6 3.5
12 8
dB dB
Ic = 1 mA f = 1 KHz
VCE = 5 V for2N1613 for2N1711
2.2 4.4
Ic = 1 mA f = 1 kHz
VCE = 5 V for 2N1613 for2N1711
3.6x10- 4 7.3x10- 4
Ie = 1 mA f = 1 kHz
VeE = 5 V for 2N1613 for 2N1711
12.5 23.8
Ic = 0.3 mA R g =5100
Min.
kQ kO
~S ~S
• Pulsed: pulse duration = 300 Ils, duty cycle = 1 %.
3/3
287
2N1893 GENERAL PURPOSE HIGH-VOLTAGE TYPE DESCRIPTION The 2N 1893 is a silicon planar epitaxial NPN transistor in Jedec TO-39 metal case, designed for use in high-performance amplifier, oscillator and switching circuits. It provides greater voltage swings in oscillator and amplifier circuits and more protection in inductive switching circuits due to its 120 V cOllector-to-base voltage rating.
e
Products approved to CECC 50002-104 available on request. TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Parameter
Symbol VCBO
Collector-base Voltage (IE = 0)
VCER
Collector-emitter Voltage (RBE
VCEo
Collector-emitter Voltage (IB = 0)
VEBO
Emitter-base Voltage (Ic = 0)
Ic Ptot
T stg , Tj October 1988
S;
10 Q)
Value
Unit
120
V
100
V
80
V
7
V
Collector Current
0.5
A
Total Power Dissipation at T amb ~ 25°C at T case S; 25°C at T case ~ 100°C
0.8 3 1.7
W W W
- 65 to 200
°C
Storage and Junction Temperature
1/3
289
2N1893 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
58 219
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
10 15
nA ~
10
nA
Collector Cutoll Current (IE = 0)
VCB =90 V VCB = 90 V
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
V(BR) cso
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 ~A
120
V
V(SR)CER *
Collector-emitter Breakdown Voltage (RsE ,; 10 0)
Ic = 10 mA
100
V
V(SR)CEO
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
80
V
V(SR) ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 ~
7
V
Collector-emitter Saturation Voltage
Ic =50 mA Ic=150mA
Is = 5 mA Is = 15 mA
Base-emitter Saturation Voltage
Ic =50 mA Ic=150mA
Is = 5 mA Is = 15 mA
DC Current Gain
Ic =0.1 mA Ic=10mA Ic = 150 mA Ic = 10 mA T amb = - 55°C
VCE=10V VCE=10V VCE=10V VCE=10V
Ic = 1 mA 1=1 kHz Ic = 5 mA 1=1 kHz
VCE = 5 V
Icso lEBO
VCE VSE
(sat) *
(sat)
hFE *
hIe
*
Small Signal Current Gain
T amb = 150°C
1.2 5
V V
0.82 0.96
0.9 1.3
V V
20 35 40
50 80 80
120
20
40
30
70
45
85
50
70
150
VCE=10V
Transition Frequency
Ic = 50 mA 1=20 MHz
VCE=10V
CESO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VES = 0.5 V
55
85
pF
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs =10V
13
15
pF
IT
* Pulsed: pulse duration
2/3
290
= 300 !,S, duty cycle = 1 %.
MHz
2N1893 DC Current Gain. 11111111 VeE
= lOV I I
160
140
,11111 I,
JI
'i l ", 150·C
,Wi III,
1II
"',
60
I
40
~
"
I'
I ; -55-C
')'
i
;;
I!i
rrm
i
11 10
I I II VeE= 15V
I---
I--VCE ,10V
veE = sv I I
:::1
11::1 "
I':,
IIIII!I I II :~ i
1001 C(mAl
A ~~ ~
lI-~
I;]
, ~i';
,j
,
'~OMIH~ I
',I
!
'II'
I
t
I,
:lUI~,'" ,1'1,1 'I~, 101 1,1;1
eo
G-452J
1111:1
I!!:
II::!
1',1
I 1m ,;jj? or JIffiI 1 ';! ,,'i' ill! I::"~ 11",,' I '~ 'iii ~ I "fi j' r " It- fm FTI Iii
100
,I iii,,
ffiiI TIillil 1,0~
120
'0
High-frequency Current Gain. 6-'52
A
~
~ 10
3/3
291
I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I
2N2102 GENERAL PURPOSE AMPLIFIER AND SWITCH DESCRIPTION The 2N21 02 is a silicon planar epitaxial NPN transistor in Jedec TO-39 metal case. It is intended for a wide variety of small-signal and medium power applications in military and industrial equipments.
TO·39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter ~
VCBo
Collector-base Voltage (IE
VCEo
Collector-emitter Voltage (lB
~
0)
VCER
Collector-emitter Voltage (RBE
0:;
V EBO
Emitter-base Voltage (Ic
Ic P tot T stg • Tj January 1989
~
0) 10 Q)
Value
Unit
120
V
65
V
80
V
7
V
Collector Current
1
A
Total Power Dissipation at T amb <; 25°C at T case <; 25°C
1 5
W W
- 65 to 200
DC
0)
Storage and Junction Temperature
1/2
293
2N2102 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
35 175
Max Max
=
25 "C unless otherwise specified)
Test Conditions
Min_
Typ-
Max.
Unit
2 2
~A
5
nA
Collector Cutoff Current (IE = 0)
Vcs =60 V Vcs =60 V
Emitter Cutoll Current (Ic = 0)
VES = 5 V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100 ~
120
V
(sus)
Collector-emitter Sustaining Voltage (Is = 0)
Ic = 30 mA
65
V
V CE
(sat)
Collector-emitter Saturation Voltage
Ic=150mA
Is = 15 mA
0.5
V
VSE
(sat)
Base-emitter Saturation Voltage
Ic = 150 mA
Is = 15 mA
1.1
V
DC Current Gain
Ic=10~A
VCE=10V VCE=10V VCE = 10 V VCE =10V VCE=10V VCE=10V
ICBO lEBO V(SR) cso VCEO
hFE
.
. . .
Ic=100~A
Ic=10mA Ic=150mA Ic = 500 mA Ic = 1 A hie
High Frequency Current Gain
Ic = 50 mA 1= 20 MHz
NF
Noise Figure
Ic = 300 ~A BW = 1 Hz
T amb = 150°C
VCE=10V
10 20 35 40 25 10
nA
120
6
VCE =10V 1=1 KHz RG=510Q
8
dB
Ccso
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs=10V
15
pF
CEso
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEs=0.5V
80
pF
• Pulsed: pulse duration = 300 ~s, duty cycle
2/2
294
= 1 %.
2N2218-2N2219 2N2221-2N2222 HIGH-SPEED SWITCHES DESCRIPTION The 2N2218, 2N2219, 2N2221 and 2N2222 are silicon planar epitaxial NPN transistors in Jedec TO-39 (for 2N2218 and 2N2219) and in Jedec TO-18 (for 2N2221 and 2N2222) metal cases. They are designed for high-speed switching applications at collector currents up to 500 mA, and feature useful current gain over a wide range of collector current, low leakage currents and low saturation voltages. ~
2N2218/2N2219 approved to CECC 50002100, 2N2221/2N2222 approved to CECC 50002-101 available on request.
TO·39
TO·18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VeBo
Collector-base Voltage (IE = 0)
60
V
VCEO
Collector-emitter Voltage (IB = 0)
30
V
VEBO
Emitter-base Voltage (Ie = 0)
5
V
0.8
A
2N2219 2N2222
0.8 0.5
W W
2N2219 2N2222
3 1.8
W W
Ie Ptot
Parameter
Collector Current Total Power Dissipation at T amb " 25 DC for 2N2218 and for 2N2221 and at T case" 25 DC for 2N2218 and for 2N2221 and
T stg
Storage Temperature
- 65 to 200
°C
TJ
Junction Temperature
175
°C
January 1989
1/2
295
2N2218-2N2219-2N2221-2N2222 THERMAL. DATA
Rth j-case Rth j-amb
I Thermal Resistance Junction-case
Max Max
Thermal Resistance Junction-ambient
2N2218 2N2219
2N2221 2N2222
50°C/W 187.5 °C/W
83_3°C/W 300°C/W
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Parameter
Symbol
Test Conditions
Min.
Typ.
Max.
Unit
10 10
nA
10
nA
Collector Cutoff Current (IE ~ 0)
Vcs ~50 V Vcs ~ 50 V
Emitter Cutoff Current (Ic ~ 0)
VES ~ 3 V
Coillector-base Breakdown Voltage (IE ~ 0)
Ic~10~A
60
V
Collector-emitter Breakdown Voltage (Is ~ 0)
le~10mA
30
V
V(SR) ESO
IE ~10 ~
5
V
VeE (sat)
.
Emittter-base Breakdown Voltage (Ic ~ 0)
Ie ~ 150 mA Ie ~ 500 mA
Is Is
15 mA 50 mA
OA 1_6
V V
V SE (sat)
.
Collector-emitter Saturation Voltage Base-emitter Saturation Voltage
Ie ~ 150 mA Ie ~ 500 mA
Is ~ 15 mA Is ~ 50 mA
1_3 2_6
V V
DC Current Gain
for2N2218 and 2N2221 Ic ~0_1 mA VeE~10V Ie ~ 1 mA VeE~10V Ie ~ 10 mA VeE~10V VeE~10V Ie = 150 mA Ie ~ 500 mA VeE~10V VeE ~ 1 V Ie ~ 150 mA for 2N2219 and 2N2222
Icso IEso V(SR) cso V(SR)eEO
hFE *
.
T amb ~ 150°C
~ ~
le~0_1mA
VeE~10V
Ie ~ 1 mA Ie ~ 10 mA Ie ~ 150 mA Ie = 500 mA
VCE~10V
le~150mA
20 25 35 40 20 20
VeE=10V VeE ~ 1 V
35 50 75 100 30 50 250
VeE~10V VeE~10V
~A
120
300
Transition Frequency
Ie ~ 20 mA f ~ 100 MHz
VCE ~20 V
Ceso
Collector-base Capacitance
IE ~ 0 f ~ 100 kHz
Ves~10V
8
pF
Re(hie)
Real Part of Input Impedance
Ie ~ 20 mA f ~ 300 MHz
VeE ~ 20 V
60
Q
fT
• Pulsed: pulse duration = 300 I-ls, duty cycle
2/2
296
=
1 %_
MHz
2N2218A-2N2219A 2N2221 A-2N2222A HIGH SPEED SWITCHES DESCRIPTION The 2N2218A, 2N2219A, 2N2221 A and 2N2222A are silicon planar epitaxial NPN transistors in Jedec TO-39 (for 2N2218A and 2N2219A) and in Jedec TO-18 (for 2N2221 A and 2N2222A) metal cases. They are designed for high-speed switching applications at collector currents up to 500 mA, and feature useful current gain over a wide range of collector current, low leakage currents and low saturation voltages.
G
2N2218A/2N2219A approved to CECC 50002-100, 2N2221 A/2N2222A approved to CECC 50002-101 available on request.
TO-39
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Parameter
Symbol
= 0)
Vcso
Collector-base Voltage (I E
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
Ic P tot
= 0)
= 0)
Unit
75
V
40
V
6
V
0.8
A
2N2219A 2N2222A
0.8 0.5
W W
2N2219A 2N2222A
3 1.8
W W
Collector Current Total Power Dissipation at T amb ,; 25 'C for 2N2218A and for 2N2221 A and at T case'; 25°C for 2N2218A and for 2N2221 A and
Value
T stg
Storage Temperature
- 65 to 200
°C
Tj
Junction Temperature
175
DC
January 1989
1/5
297
I.
2N2218A-2N2219A-2N2221 A-2N2222A THERMAL DATA
Rth j-case Rth j-amb
I
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
2N2218A 2N2219A
2N2221 A 2N2222A
50°C/W 187.5°C/W
83.3°C/W 300°C/W
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Max.
Unit
10 10
nA flA
VCE =60V
10
nA
Emitter Cutoff Current (Ic = 0)
V ES = 3 V
10
nA
Base Cutoff Current (VSE =- 3 V)
VCE = 60 V
20
nA
V(SR) cso
Collector-base Breakdown Voltage (I E = 0)
Ic=10flA
75
V
V(SR) CEO
Collector-emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
40
V
Emittter-base Breakdown Voltage (Ic = 0)
IE=10flA
6
V
Collector-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA
Is = 15 mA Is = 50 mA
Base-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA
Is=15mA Is = 50 mA
DC Current Gain
for 2N2218A and 2N2221 A Ic =0_1 mA VcE =10V Ic = 1 mA VCE=10V Ic=10mA VCE=10V Ic = 150 mA VcE =10V Ic = 500 mA VCE=10V Ic = 150 mA VCE = 1 V Ic=10mA VCE=10V T amb = - 55°C
Collector Cutoff Current (IE = 0)
Vcs =60 V Vcs =60 V
ICEx
Collector Cutoff Current (VSE =- 3 V)
IEso ISEx
Icso
.
V(SR) ESQ V CE (sat) V SE (sat) hFE
hFE
.
.
. .
DC Current Gain
• Pulsed: pulse duration = 300 ~s. duty cycle = 1 %.
2/5
298
Min.
T amb = 150°C
for 2N2219A and 2N2222A Ic =0.1 mA VCE=10V Ic = 1 mA VCE=10V VCE=10V Ic = 10 mA Ic=150mA VCE=10V Ic = 500 mA VCE=10V Ic = 150 mA VCE = 1 V Ic = 10 mA VCE=10V T amb = - 55°C
0.6
20 25 35 40 25 20
Typ.
0.3 1
V V
1.2 2
V V
120
15 35 50 75 100 40 50 35
300
2N2218A-2N2219A-2N2221 A-2N2222A ELECTRICAL CHARACTERISTICS (continued) Symbol hie
fT
Parameter Small Signal Current Gain
Transition Frequency
Test Conditions Ic = 1 mA f = 1 kHz for 2N2218A for 2N2219A Ic = 10 mA f = 1 kHz for 2N2218A for 2N2219A
Min.
Typ.
Max.
Unit
VCE=10V and 2N2221 A and 2N2222A VCE=10V
30 50
150 300
and 2N2221 A and 2N2222A
50 75
300 375
Ic =20 mA VCE =20 V f=100MHz for 2N2218A and 2N2221 A for 2N2219A and 2N2222A
MHz MHz
250 300
CEBO
Emitter-base Capacitance
Ic = 0 f = 100 kHz
VEB = 0.5 V
25
pF
CCBO
Collector-base Capacitance
IE = 0 f = 100 kHz
VCB=10V
8
pF
Relhie)
Real Part of Input Impedance
Ic = 20 mA f = 300 MHz
VCE = 20 V
60
Q
Noise Figure
Ic = 100 IlA Rg = 1 kQ
VCE=10V f = 1 kHz
Input Impedance
Ic = 1 mA for 2N2218A for 2N2219A Ic = 10 mA for 2N2218A for 2N2219A
VCE=10V and 2N2221 A and 2N2222A VCE=10V and 2N2221 A and 2N2222A
Ic = 1 mA for 2N2218A for 2N2219A Ic = 10 mA for 2N2218A for 2N2219A
VCE=10V and 2N2221 A and 2N2222A VcE =10V and 2N2221 A and 2N2222A
Ic = 1 mA for 2N2218A for 2N2219A Ic = 10 mA for 2N2218A for 2N2219A
VcE =10V and 2N2221 A and 2N2222A VcE =10V and 2N2221 A and 2N2222A
NF hie '*
hre '*
hoe ' ,
Reverse Voltage Ratio
Output Admittance
4
dB
1 2
3.5 8
Q Q
0.2 0.25
1 1.25
Q
n
5x10- 4 8x10- 4 2.5x10- 4 4x10- 4 3 5
15 35
IlS IlS
10 25
100 200
IlS IlS
td'"
Delay Time
Ic = 150 mA IB1 =15mA
Vcc =30 V VBB =- 0.5 V
10
ns
tr ***
Rise Time
Ic = 150 mA IB1 = 15 mA
Vcc =30 V VBB = - 0.5 V
25
ns
ts ***
Storage Time
Ic = 150 mA Vcc = 30 V IB1 =-IB2 = 15 mA
225
ns
tf***
Fall Time
Ic = 150 mA Vcc =30 V IB1 =- IB2 = 15 mA
60
ns
Feedback Time Constant
Ic = 20 mA f =31.8 MHz
150
ps
rbb'Cb,c
VCE = 20 V
.. f = 1 kHz *** see test circuit.
3/5
299
2N2218A-2N2219A-2N2221 A-2N2222A Normalized DC Current Gain.
Collector-emitter Saturation Voltage. VCE(satl (V)
0.2
10
0.1
100
Contours of Constant Narrow Band Noise Figure. RS (.G.)
Switching Time I (ns )
adS
• f--
-
,
I
"
---.;t
=1 KHz
1"'\.,
!
,'-.,J. 1\.1
11 :
10
~
...
-
,i
i'...SdB
~~
300
-
Vee :15,1,1
I
. ~
t--.
-1
,i i
1m
10
,:s: ~~
,I--- I---~ -- _.
. ,
100 L..........J'--'L..!-L>Lll.l.L_-'-....L...l...J.J....l.l.L 0.01
Is
,~ b - I f
i
500
"
,I-.
,
1\ ,
•
IC;'0IB,~101~.
+
1+
I 'i!
·~1'..,---+--"I.!',.~4LJdB++i4- ·-1 t~,
4/5
vs. Collector Current.
I':::
SdB
lK
10
G - 1,527
,
5K
0.1
IC(mA)
0.1
10
I
..
--
:-+-H- I • ;
,
I
f--
,
I,
V,
I
ft
I 100
! I
, I·
II 11
2N2218A-2N2219A-2N2221 A-2N2222A Test Circuit fat td, tr.
VBB=-0.5 V
VCC=~30V
10Kfi
+-1O.4Tl
o
V'Nl
VOUT
0.47}JF
61911
5011
5-4624 PULSE GENERATOR: tr ::;20 ns
TO OSCILLOSCOPE: tr$5.0ns Z'N < 100 Kn C'N,,12pF
PW,,200 ns Z'N~50n
Test Ci rcu it fat td,
tr
Vss= -23.8V
s-
4625 PULSE GENERATOR: PW. 10 IlS
TO OSCILLOSCOPE: tr < 5.0 ns
Z'N~50n
Z,N> 100 Kn C'N,,12pF
Tc" 5.0 ns
5/5 301
I I I I I I
I I I I I
I I I I
I I I
I I I I I
I I I I I
I I
I I I I I
I I I I
I I I
I I I I I
I I I I
I I I
I I I I
I I I I I
I I I I I I I
2N2368 HIGH-FREQUENCY SATURATED SWITCH DESCRIPTION The 2N2368 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed specifically for high-speed saturated switching applications at current levels from 100 ~ to 100 rnA. ~ Products approved to CECC 50004-0221023 available on request.
T0-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCES VCEO VEBO ICM Ptot
T stg , Tj October 1988
Parameter
Value
Unit
40
V
40
V
15
V
= 0) Collector-emitter Voltage (I BE = 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0) Collector Peak Current (t = 10 Ils)
4.5
V
0.5
A
Total Power Dissipation at T amb " 25°C at T case " 25°C at T case " 100°C
0.36 1.2 0.68
W W W
- 65 to 200
°C
Collector-base Voltage (IE
Storage and Junction Temperature
1/2
303
2N2368 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
0.4 30
).lA ).lA
Collector Cutoff Current (IE = 0)
VCB=20V VCB =20 V
V(BR) CBO
Collector-base Breakdown Voltage (IE = 0)
Ic=10).lA
40
V
V(BR)CES
Collector-emitter Breakdown Voltage (VBE = 0)
Ic = 10).lA
40
V
V(BR)CEO
Collector-emitter Breakdown Voltage (IB = 0)
Ic=10mA
15
V
V(BR) EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10
4.5
V
VCE (sat)
Collector-emitter Saturation Voltage
Ic=10mA
IB = 1 mA
Base-emitter Saturation Voltage
Ic=10mA
IB = 1 mA
0.7
DC Current Gain
Ic=10mA VCE = 1 V Ic=100mA VCE = 2 V Ic=10mA VCE = 1 V Tamb =- 55°C
20 10
Transition Frequency
Ic=10mA f=100MHz
V eE =10V
Collector-base Capacitance
IE = 0 f = 1 MHz
VeB = 5 V
ts
Storage Time
ton toff
ICBo
VBE (sat) hFE
.
IT CeBo
.
. .
304
J.lA
0.2
0.25
V
0.75
0.85
V
60
10 400
550
MHz
2.5
4
pF
Ic=10mA Vce = 10 V IBt =- IB2 = 10 mA
5
10
ns
Turn-on Time
le=10mA IB1 =3 mA
Vee = 3 V
9
12
ns
Turn-off Time
le=10mA IB1 =3 mA
Vee =3 V IB2=-1.5mA
10
15
ns
• Pulsed: pulse duration = 300 !Is, duty cycle = 1 %.
2/2
Tamb = 150°C
2N2369 HIGH-FREQUENCY SATURATED SWITCH DESCRIPTION The 2N2369 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed specifically for high-speed saturated switching applications at current levels from 100 flA to 100 mA.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Value
Unit
Vcso
Collector-base Voltage (I E = 0)
40
V
VCES
Collector·emitter Voltage (VSE = 0)
40
V
VCEO
Collector-emitter Voltage (Is = 0)
15
V
VESO
Emitter-base Voltage (Ic = 0)
4.5
V
ICM
Collector Peak Current (t = 10 IlS)
0.5
A
Ptot
Total Power Dissipation at T amb :0: 25°C at T case :0: 25 DC at T case :0: 100°C
0.36 1.2 0.68
W W W
- 65 to 200
°C
Symbol
T stg • Tj
Parameter
Storage and Junction Temperature
Products approved to CECC 50004·022/023 available on request.
January 1989
1/2
305
2N2369 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Test Conditions
Min.
Typ.
Max.
Unit
0.4 30
flA flA
VCB=20V VCB=20V
V(BRI CBO
Collector-base Breakdown Voltage (I E = 0)
Ic=10flA
40
V
V(BRI CES
Collector-emitter Breakdown Voltage (V BE = 0)
Ic = 10 flA
40
V
V(BRI CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ie = 10 mA
15
V
V(BRI EBO
Emitter-base Breakdown Voltage (Ie = 0)
IE =10flA
4.5
V
VCE (satl *
Collector-emitter Saturation Voltage
Ic=10mA
IB = 1 mA
VBE (satl *
Base-emitter Saturation Voltage
Ic = 10 mA
IB = 1 mA
0.7
DC Current Gain
Ie = 10 mA VCE = 1 V Ie = 100 mA VeE = 2 V Ic = 10 mA VeE = 1 V T amb = - 55°C
40 20
Transition Frequency
Ic = 10 mA f = 100 MHz
VCE =10V
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB = 5 V
ts
Storage Time
ton toff
hFE *
fT CeBo
*
Parameter Collector Cutoff Current (IE = 0)
ICBo
306
0.2
0.25
V
0.75
0.85
V
120
20 500
MHz
650 2.5
4
pF
Ie = 10 mA Vcc = 10 V IB1 =- IB2 =10mA
6
13
ns
Turn-on Time
Ic = 10 mA IB1 = 3 mA
Vcc = 3 V
9
12
ns
Turn-off Time
Ic = 10 mA IB1 =3 mA
Vee = 3 V IB2 =-1.5 mA
13
18
ns
Pulsed: pulse duration = 300 ~. duty cycle = 1 %.
2/2
Tamb = 150°C
2N2369A HIGH-SPEED SATURATED SWITCH DESCRIPTION The 2N2369A is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is designed specifically for high-speed saturated switching applications at current levels from 100 flA to 100 mA.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
40
V
40
V
15
V
4.5
V
Collector Current
0.2
A
ICM
Collector Current (10 lls pulse)
0.5
A
P tot
Total Power Dissipation at T amb :5 25°C at T case :5 25°C at T case :5 100°C
0.36 1.2 0.68
W W W
- 65 to 200
°C
= 0)
VCBO
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (V BE
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
Ic
T stg , Tj
= 0)
= 0)
= 0)
Storage and Junction Temperature
December 1988
1/4
307
2N2369A THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
30
j.tA
0.4
j.tA
IC80
Collector Cutoff Current (IE = 0)
VC8 =20V
ICES
Collector Cutoff Current (V8E = 0)
VCE=20V
Collector-base Breakdown Voltage (IE = 0)
Ic=10j.tA
40
V
Collector-emitter Breakdown Voltage (V8E = 0)
Ic=10j.tA
40
V
Collector-emitter Breakdown Voltage (18 = 0)
Ic=10mA
15
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10 j.tA
4.5
V
V(8R) C80
V(8R)CES
V(8R)CEO *
V(8R) E80
T amb = 150°C
VCE (sat) *
Collector-emitter Saturation Voltage
Ic = 10 mA Ic = 30 mA Ic = 100 mA Ic = 10 mA T amb = 125°C
V8E (sat) *
Base-emitter Saturation Voltage
Ic = 10 mA 18 18 =30 mA 18 Ic=100mA 18 Ic = 10 mA 18 T amb = - 55 to 125
hFE *
DC Current Gain
Ic = 10 mA Ic=10mA Ic = 30 mA Ic=100mA
0.35 V 1V 0.4 V 1V
40 40 30 20
63 66 71
hFE *
DC Current Gain
Ic=10mA VCE = 0.35 V T amb = - 55 DC
20
50
Transition Frequency
Ic = 10 mA f=100MHz
VCE=10V
500
675
CC80
Collector-base Capacitance
IE = 0 f = 1 MHz
VC8 = 5 V
ts * *
Storage Time
ton ** toff **
fT
308
0.14 0.17 0.28
= 1 mA
0.7
= 3 mA = 10 mA = 1 mA DC
0.59
VCE VCE VCE VCE
= = = =
0.2 0.25 0.5
V V V
0.19
0.3
V
0.8 0.9 1.1
0.85 1.15 1.6
V V V
1.02
V
120 120
MHz
2.3
4
pF
Ic = 10 mA Vcc=10V 18t = - 182 = 10 mA
6
13
ns
Turn-on Time
Ic=10mA 18t = 3 mA
Vcc = 3 V
9
12
ns
Turn-off Time
Ic = 10 mA 181 = 3 mA
Vcc = 3 V 182 =-1.5 mA
13
18
ns
• Pulsed: pulse duration = 300 ~s. duty cycle = 1 % . •• See test circuit.
2/4
18 = 1 mA 18 = 3 mA 18 = 10 mA 18 = 1 mA
2N2369A Collector-emitter Saturation Voltage.
DC Current Gain. G 3'100
100 80
,-
i
IV IIUllii
lilli!
!
60 40 20
nl1l +-+I++!I iIHI:II--++fjjjjjf"-. lil l !1 lillii:
'=H'ffiliII-r""".-++t
lllj-i
jfJi.i
! 10"
1::1 ",1 1
1
,
III1
10- 1
10
Collector-base and Emitter-base capacitances.
10 2
10
IC(mAI
Contours of Constant Transition Frequency. VeE' (V) 6
~~~~~~~!!~~~Gj"I!'4l I.'
~o
I
le' O
I'
'1 Ii
10:
"I
I-III--+--+-+++Wl-!,~-o-l.MH}-I! ~ii'i,t I
!Hm I'
,
~
, •
I
I
III
, 'B
4
'B
10
. ,.
11'1,
, 'B
Switching Characteristics.
, 10
.
Ie (mA)
10'
Switching Characteristics. G 3144
,:~i:'~)'~J
'i
:iill
. 20ns :1 ii, I
!
10
10'
le(mA)
I
I
iii
I
:';,1
I, 'i I i ili·1 10
1
10'
•
II
i,;1
le(mA)
3/4
309
2N2369A Test Ci rcu it for Is
'A'
O,l,uF 1Kil vOUT
~
Y'N PULSE GENERATOR
rr-~~"Ie.-+--I
TO OSCILLOSCOPE Z IN =50.n
VIN t r < In!o SOURCE'IMPEOANCE=50n PW ~ JOOn!o
DC<2~, o
~10
112,3 n F
l.
10NF
t=--
• 6Y---"-10"'. Pulse waveform o at ~ "Y --~
,,'-"'="-=-
+
llV
~N
s-
46U,
~1---~>----
Test Circuit for ton, toff
I
PULSE GENERATOR
V'Ntr< lns. SOURCE IMPEDANCE: SOil
PW ;?:: 300ns. DC <.: 2"'.
O D ' N10",
4/4
310
2,3nF
0,1 I F O'lNF+ +
VBB =-3V VIN ::: +- 15 V
ton
,*;
~2,3nF
tr:-::: , "s
VBB=+12V V1N =-15V
VCC=3V
V BB
~~~: +---~-----j(~
TO OSCILLOSCOPE INPUT tMPEDANC E '" 50 !l
5- 4622
.----~~----
L._+_J.:.-t--- 90'"
2N2484 LOW-LEVEL, LOW-NOISE AMPLIFIERS DESCRIPTION The 2N24S4 is a silicon planar epitaxial NPN transistor in Jedec TO-iS metal case. It is designed for use in high-performance, low-noise amplifier circuits from audio to high-frequency. ~ Products approved to CECC50002-129 avail-
able on request.
TO-1S
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Value
Unit
VCBO
Collector-base Voltage (IE = 0)
60
V
VCEO
Collector-emitter Voltage (IB = 0)
60
V
VEBO
Emitter-base Voltage (Ic = 0)
6
V
Collector Current
50
mA
0.36 1.2 0.68
W W W
- 65 to 200
°C
Symbol
Ic Ptot
T stg , Tj October 1988
Parameter
Total Power Dissipation at T amb at T case at T case
25°C 25°C OS; 100°C
OS;
OS;
Storage and Junction Temperature
1/4
311
2N2484 THERMAL DATA 146 486
Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Min.
Test Conditions
Typ.
Max.
Unit
10 10
nA IlA
10
nA
Collector Cutoff Current (IE = 0)
Vcs =45 V Vcs =45 V
Emitter Cutoff Current (Ic = 0)
VES = 5 V
Coillector-base Breakdown Voltage (IE = 0)
Ic=101lA
60
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic=10mA
60
V
Emittter-base Breakdown Voltage (Ic = 0)
IE=101lA
6
V
Collector-emitter Saturation Voltage
Ic = 1 mA
Is=0.1mA
VSE
Base-emitter Voltage
Ic=1001lA
VCE = 5 V
hFE
DC Current Gain
Ic = 1 IlA Ic=101lA Ic=1001lA Ic = 500 IlA Ic = 1 mA Ic = 10 mA Ic= 1O IlA T amb = - 55°C
VCE VCE VCE VCE VCE VCE VCE
V V V V V V V
150
400
15
20
MHz
60
78
MHz
Icso IESO VISR)CSO VISR)CEO
.
VISR) ESO VCE Isat)
.
T amb = 150°C
=5 =5 =5 =5 =5 =5 =5
0.2
0.35
V
0.5
0.57
0.7
V
30 100 175 200 250
200 290 375 430 450 430
500
800
20
hIe
Small Signal Current Gain
Ic = 1 mA f = 1 kHz
VCE = 5 V
fT
Transition Frequency
Ic = 50 IlA f = 5 MHz Ic = 500 IlA f = 30 MHz
VCE = 5 V
900
VCE = 5 V
CESO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VES = 0.5 V
3.5
6
pF
Ccso
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs = 5 V
3.5
6
pF
Noise Figure
VCE = 5 V Ic=101lA Rg = 10 kQ f = 100 Hz f = 1 kHz f = 10kHz f = 10 to 10000 Hz
4 1.8 0.6 1.8
10 3 2 3
dB dB dB dB
NF
hie
hre
.. ..
hoe
..
Input Impedance
Ic = 1 mA
VCE = 5 V
15
24
Reverse Voltage Ratio
Ic = 1 mA
VCE = 5 V
4.25
8
kQ 10- 4
Output Admittance
Ic = 1 mA
VCE = 5 V
15
40
IlS
• Pulsed: pulse duration = 300 • * f= 1 kHz.
2/4
312
~,
duty cycle = 1 % .
3.5
2N2484 DC Current Gain.
Collector-base Capacitance. G 1875
At+Wl'
111111 VCE =5V
2N2484
i
400
i-" :! I
200
100
,I
.... ~
-
"-
.........
-- - -'-
,
!
~'
I i
\
2N24831
I
./
(pF )
l I 111
,/
300
Ii
G 2056
CCBO
I
I
f=1MHz
III
III
2
468
10"3
2
4 '8
10"2
12
10-1
Noise Figure vs. Source Resistance.
Contours of Constant Noise Figure
f = 100 Hz. G 205 7
NF
! Iii
!VeE =5V
(dB)---.!
Ii!!
B=15.7kHz
I C=100,..A
~. ~
.< ,-
~
j
'i 1 ,I i
"
/ /
I:
i
-UJ#i
30~A
. .
~
10
-11 ;Ol'~
-"1-1tf . , .I
Contours of Constant Noise Figure
Contours of Constant Noise Figure
f = 1 kHz.
f = 10 kHz.
I', Ji 1l.4 . .. ...III -,
veE - 5V
I, I
:I
;
i I
M··~.~Bi
i
"iii;
'-1=10kHz--, BdkHz 10-' , 10
i'i'i'"r1,
10'
3/4
313
2N2484 Contours of Constant Noise Figure
f= 1 MHz.
4/4
314
2N2845 HIGH-SPEED SATURATED SWITCH DESCRIPTION The 2N2845 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case. It is intended for high speed switching applications at collector currents up to 500 mAo
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ic Ptot
T stg , T j
January 1989
Parameter
Value
Unit
60
V
30
V
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ie = 0)
5
V
Collector Current
500
mA
Total Power Dissipation at T amb ~ 25 DC at T case ~ 25 DC at Tcase ~ 100 DC
0.36 1.2 0.68
W W W
- 55 to 200
DC
Collector-base Voltage (IE
Storage and Junction Temperature
1/3
315
2N2845 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Parameter
Symbol
Min.
Typ.
Max.
Unit
200 200
nA !-LA
VCB =30 V VCB = 30 V
V(BR) CBO
Collector-base Breakdown Voltage (I E = 0)
Ic =0.1 mA
60
V
V(BR) CEO *
Collector-emitter Breakdown Voltage (I B = 0)
Ic =30 mA
30
V
V(BR) EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE=0.1mA
5
V
Ic = 50 mA Ic = 150 mA Ic = 500 mA
IB = 5 mA IB = 15 mA IB = 50 mA
0.16 0.22
OA
OA8
1
V V V
Base-emitter Saturation Voltage
Ic = 50 mA Ic = 150 mA Ic = 500 mA
Is = 5 mA Is = 15 mA Is = 50 mA
0.78 0.85 1.12
1.2 1.6
V V V
DC Current Gain
Ic Ic Ic Ic
=50 mA = 150 mA =500 mA = 500 mA
VCE = 10 V VCE=10V VCE=10V VCE = 1 V
30 20 10
60 60 50 30
Transition Frequency
Ic = 50 mA f = 100 MHz
VcE =10V
250
350
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB=10V
6
8
pF
ton
Turn-on Time
Ic=150mA IB1 = 15 mA
Vcc=10V
18
40
ns
toff
Turn-off Time
Ie = 150 mA Vec = 10 V 1St =-IB2 = 15 mA
25
40
ns
V BE
(sat) *
(sat)
hFE *
fT CCBO
*
Pulsed: pulse duration = 300 Ils. duty cycle = 1 %.
2/3 316
T amb = 125°C
Collector-emitter Saturation Voltage
VCE
*
Test Conditions
Collector Cutoff Current (IE = 0)
ICBo
120
MHz
2N2845 DC Current Gain.
Collector-emitter Saturation Voltage. G 3061
VC.E(sat ) le= 10 Ie
(VI
80.
0..
60.
0.3
.0.
Q,
-
f I
-
~ ~:::l-1
JXI f0 -
I
,;Je
V
-
I
i , "
2
10 2
10
t
Tamb:::25-C
:-We .1 F It j
D.'
10- 1
-~
Ie (rnA)
r--- c-
, ,, , , " Ie (rnA) ,0.'
2
,0.
Emitter-base and Collector-base Capacitances.
Base-emitter Saturation Voltage.
e
VaEloal1 (VI
(pFl"
c.=~~HEi===tllll:at +--h-+++fjj
1----t-t-i-titHt
t2
09
'" 0..6
03
10- 1
Contours of Constant Transition Frequency.
10
Switching Characteristics. G 30.
G 3090
veER
I (nsI
(VI 6
, ,
10
8
,. ~
~~II
f=:l~
,
'}-
6
V'"
~-.
'C~
2
'1\
~
,
,
-~
~:;;.-
IC,,10181'''-10182
i
lO-1
a
50.
100
150
200
250.
I
iii i
I
i
300 Ie (mA)
Ii I
IVCC.=lO -'-;--
-
I
,
10
I I I I ! i I I 1 ! I I I , i ' I
i1
;
8 6
,
.A,
"
//~
,\'~
.........
'6 1---
'Co;
\.,
II Ii , II
1
\. \. \.
'0.
-.,
I
II II II
'
Is
I
!
,I
I/"!"~
~Iil I'..., '"""-
I
I 68
I LZ 1/1
I I
,0.'
1
III J.d'1 I ! I II Id I I ! T"H I I II If
,
,
68
le(mM
3/3
317
2N2857 VHF/UHF AMPLIFIERS DESCRIPTION The 2N2857 is a silicon planar epitaxial NPN transistors in Jedec TO-72 metal case, intended for amplifier, oscillator and converter applications up to 500 MHz.
TO-72
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Vcso
Collector-base Voltage (IE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
Ic Ptot T stg , Tj January 1989
=
=
0) =
0)
0)
Value
Unit
30
V
15
V
2.5
V
Collector Current
40
mA
Total Power Dissipation at T amb 0: 25 DC at T case 0: 25°C
200 300
mW mW
- 65 to 200
°C
Storage and Junction Temperature
1/2
319
2N2857 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
583 875
Max Max
=
25 'C unless otherwise specified)
Test Conditions
Min.
Typ.
Max.
Unit
10 1
nA ~
Collector Cutoll Current (IE = 0)
VCB = 15 V VCB=15V
V(BRJ CBO
Collector-base Breakdown Voltage (IE = 0)
Ic =1 ~
30
V
V(BRJ CEO
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 3 mA
15
V
V(BRJ EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 10
2.5
V
ICBo
DC Current Gain
Ic = 3 mA
VCE = 1 V
30
150
Ic = 5 mA 1= 100 MHz
VCE = 6 V
1
1.9
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB = 0.5 V
1.4
C ee
Reverse Capacitance
Ic = 0 1=1 MHz
VCE=10V
0.6
1
pF
NF
Noise Figure
Ic = 1.5 mA 1=450 MHz
VCE = 6 V Rg = 50 Q
3.8
4.5
dB
G pe
Power Gain (neutralized)
Ic = 1.5 mA f = 450 MHz
VCE = 6 V Rg = 50 Q
12.5
19
dB
Po
Oscillator Power Output
Ic = 12 mA f = 500 MHz
VCB = 10 V
30
Feedback Time Constant
Ic = 2 mA 1= 31.9 MHz
VCB = 6 V
4
IT CEBO
rbb'Cb,c
320
~
Transition Frequency
hFE
2/2
T amb = 150°C
GHz pF
mW
7
15
ps
2N2894 2N3209 HIGH-SPEED SATURATED SWITCHES DESCRIPTION The 2N2894, and 2N3209 are silicon planar epitaxial PNP transistors in Jedec TO-18 metal case, intended for high speed, low saturation switching applications up to 100 mA. ~ Products approved to CECC 50004-0221023
available on request.
TO-18
INTERNAL SCHEMATIC DIAGRAM
::4: 5_6896
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Parameter
Unit
2N2894
2N3209
VCBO
Collector-base Voltage (IE = 0)
-12
- 20
V
VCES
Collector-emitter Voltage (VBE = 0)
-12
- 20
V
VCEO
Collector-emitter Voltage (IB = 0)
- 12
- 20
V
VEBO
Emitter-base Voltage (Ic = 0)
Ic Ptot T stg , T j October 1988
Collector Current Total Power Dissipation at T amb :s; 25°C at T case :s; 25°C Storage and Junction Temperature
-4
V
- 200
mA
0.36 1.2
W W
- 65 to 200
°C 1/4
321
2N2894-2N3209 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
t46 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Parameter
Symbol ICBO
Collector Cutoff Current (IE = 0) (lor 2N2894 only)
ICES
Collector Cutoff Current (VBE = 0)
VIBR) eBO
VIBR)CES
VIBR)CEO
·
VISR)EBO VCE Isat)
VBE Isat)
hFE
.
IT CEBO
·
·
322
VCB=-6V lor 2N2894 VCE=-6V lor 2N3209 VCE=-10V VCE=-10V
Min.
T amb = 125°C
T amb = 125°C
Typ.
Max.
Unit
-to
IJA
- 80
nA
- 80 - 10
nA IJA
Coillector-base Breakdown Voltage (IE = 0)
Ic=-10IJA lor 2N2894 lor 2N3209
-12 - 20
V V
Collector-emitter Breakdown Voltage (VBE = 0)
Ic=- 1O IJA lor 2N2894 lor 2N3209
-12 - 20
V V
Collector-emitter Breakdown Voltage (Is = 0)
Ic=-10mA lor 2N2894 lor 2N3209
-12 - 20
V V
IE = - 100 IJA
-4
V
Emittter-base Breakdown Voltage (Ic = 0)
lor 2N2894 Ic=-10mA Ic =- 30 mA Ic =- 100 mA lor 2N3209 Ic=-10mA Ic =- 30 mA Ic =- 100 mA
Is =- 1 mA IB =- 3 mA IB =- 10 mA
- 0.15 - 0.2 - 0.5
V
IB=-1mA IB =- 3 mA IB =-10mA
- 0.15 - 0.2 - 0.6
V V
Base-emitter Saturation Voltage
Ic=-10mA Ic =- 30 mA Ic =- 100 mA
IB =- 1 mA IB=-3mA IB =-10mA
DC Current Gain
Ic=-10mA lor 2N2894 lor 2N3209 Ic =- 30 mA lor 2N2894 lor 2N3209 Ic =- 100 mA lor 2N2894 lor 2N3209 Ic =- 30 mA Tamb = - 55 'C lor 2N2894 lor 2N3209
VCE =- 0.3 V
Collector-emitter Saturation Voltage
- 0.78 - 0.85
- 0.98 - 1.2 - 1.7
V V
V V V V
30 25 VCE =- 0.5 V 40 30
150 120
VcE =-1V 25 15 VCE =- 0.5 V 17 12
Transition Frequency
Ic =- 30 mA 1= 100 MHz
VcE =-10V
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =- 0.5 V
• Pulsed: pulse duration = 300 Ils, duty cyde = 1 %.
2/4
Test Conditions
400
MHz 6
pF
2N2894-2N3209 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter Collector-base Capacitance
CCBO
-toft -ton
**
Test Conditions
Min.
Typ.
Max.
Unit
6 5
pF pF
Vec=-2V
60
ns
Ie = - 30 mA Vee =- 2 V IB1 = -IB2 =- 1.5 mA
90
ns
IE = 0 f = 1 MHz for 2N2894 for 2N3209
VcB =-5V
Turn-on Time
Ie = - 30 mA IB1 =- 1.5 mA
Turn-off Time
See test circuit.
Collector-emitter Saturation Voltage.
Emitter-base and Collector-base capacitance.
la 'L-;-'-~~+-"+"+~+'+'!-Yl--!-...l..j-Lf1J!l 10- 1
10
-Ic(mA}
Contours of Constant Transition Frequency.
Switching Characteristics.
3/4
323
2N2894·2N3209 Test Circuit for ton, toft.
VaB
VCC =-2.0V
VIN~,uF £0011 5-4621
4/4
324
PULSE GENERATOR:
TO OSCILLOSCOPE:
t"" 1.0 ns
t,< 1.0ns
DC<2% PW =400 ns ZIN=50Q "', VF!J3 = + 3.0 V, VIN = - 7.0 V IonV•• =-4V, VIN=+6V
ZIN;' 100 KQ
2N2904/2N2905 2N290S/2N2907 GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N2904, 2N2905, 2N2906 and 2N2907 are silicon planar epitaxial PNP transistors in Jedec TO-39 (for 2N2904, 2N2905) and in Jedec TO-18 (for 2N2906 and 2N2907) metal cases. They are designed for high-speed saturated switching and general purpose applications.
e:
2N2904/2N2905 approved to CECC 50002102, 2N2906/2N2907 approved to CECC 50002-103 available on request.
TO-18
To-39
INTERNAL SCHEMATIC DIAGRAM
:~: ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ic Ptot
T stg , T j October 1988
Parameter
Value
Unit
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
- 60
V
Collector Current
Collector-base Voltage (IE
Total Power Dissipation at T amb " 25°C for 2N2904 and for 2N2906 and at T case " 25°C for 2N2904 and for 2N2906 and Storage and Junction Temperature
- 40
V
-5
V
- 600
mA
2N2905 2N2907
0.6 0.4
W W
2N2905 2N2907
3 1.8
W W
- 65 to 200
°C
1/2
325
2N2904-2N2905-2N2906-2N2907 THERMAL DATA
Rth j-case Rth j-amb
I Thermal
ELECTRICAL CHARACTERISTICS (T amb Symbol
Max Max
Resistance Junction-case Thermal Resistance Junction-ambient
Parameter
=
2N2904 2N2905
2N2906 2N2907
58.3°C/W 292°C/W
97.3°C/W 437.5°C/W
25 'C unless otherwise specified)
Test Conditions
Min.
Typ.
Max.
Unit
- 20 - 20
nA IlA
Collector Cutoff Current (IE = 0)
Vcs = - 50 V VCS = - 50 V
ICEx
Collector Cutoff Current (VSE = 0.5 V)
VCE =-30V
- 50
ISEx
Base Cutoff Current (VSE = 0.5 V)
VCE=-30V
- 50
V(SR) cso
Coillector-base Breakdown Voltage (IE = 0)
Ic=-101lA
- 60
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic =- 10 mA
- 40
V(SR) ESO
Emittter-base Breakdown Voltage (Ic = 0)
IE=- 1O IlA
-5
VCE (sat) *
Collector-emitter Saturation Voltage
Ic =- 150 mA Ic =- 500 mA
IB=-15mA Is =- 50 mA
- 0.4 - 1.6
V V
VSE (sat) *
Base-emiiter Saturation Voltage
Ic =- 150 mA Ic =- 500 mA
Is =- 16 mA Is =- 50 mA
- 1.3 - 2.6
V V
DC Current Gain
for 2N2904 and 2N2906 Ic=-0.1mA VCE=-10V VcE =-10V Ic=-1mA Ic=-10mA VCE=-10V Ic=-150mA VCE=-10V Ic =- 500 mA VCE=-10V
20 25 35 40 20
for 2N2905 and 2N2907 Ic =- 0.1 mA VCE=-10V Ic =- 1 mA VCE=-10V Ic =-10 mA VCE=-10V Ic =- 150 mA VCE=-10V Ic =- 500 mA VCE=-10V
35 50 75 100 30
Icso
hFE *
hFE *
DC Current Gain
T amb = 150°C
V V
120
300
Ic = - 50 mA f=100MHz
VCE = - 20 V
CEBO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VEs =-2V
30
CCBO
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs=-10V
8
td
Delay Time
Ic=-150mA lSI =-15 mA
Vcc = - 30 V
10
tr
Rise Time
Ic =- 150 mA lSI = - 15 mA
Vcc=-30V
40
ts
Storage Time
Ic =-150 mA Vcc =- 6 V IBI =-IB2 _=-15 mA
80
tf
Fall Time
Ic =- 150 mA Vcc =- 6 V lSI =-IB2 =- 15 mA
30
• Pu)sed: pulse duration ~ 300 ~s, duty cycle ~ 1 %.
2/2
326
nA V
Transition Frequency
fT
nA
MHz
200
pF pF ns ns ns ns
2N2904A-2N2905A 2N2906A-2N2907 A GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N2904A, 2N2905A, 2N2906A and 2N2907A are silicon planar epitaxial PNP transistors in Jedec TO-39 (for 2N2904A and 2N2905A) and in Jedec TO-18 (for 2N2906A and 2N2907 A) metal cases. They are designed for high-speed saturated switching and general purpose applications. ~ 2N2904A/2N2905A
approved to CECC 50002-100, 2N2906A!2N2907 A approved to CECC 50002-103 available on request. TO-18
TO-39
INTERNAL SCHEMATIC DIAGRAM
::-~: ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO
Collector-emitter Voltage (IB = 0)
VEBO
Emitter-base Voltage (Ie = 0)
Ic P tot
T stg , Tj January 1989
Value
Parameter Collector-base Voltage (IE = 0)
60
Storage and Junction Temperature
V
- 60
V
5
V
- 600
mA
2N2905A 2N2907 A
0.6 0.4
W W
2N2905A 2N2907 A
3 t.8
W W
- 65 to 200
'C
Collector Current Total Power Dissipation at T amb S 25°C for 2N2904A and for 2N2906A and at T case S 25°C for 2N2904A and for 2N2906A and
Unit
1/4
327
2N2904A-2N290SA-2N2906A-2N2907 A THERMAL DATA
Max Max
Rth i-easeJ Thermal Resistance Junction-case Rth i-amb Thermal Resistance Junction-ambient
2N2904A 2N2905A
2N2906A 2N2907A
58.3°C/W 292°C/W
97.3°C/W 437.5°C/W
ELECTRICAL CHARACTERISTICS (T amb = 25 "C unless otherwise specified) Symbol
Parameter
Test Conditions
Max.
Unit
-10 -10
nA
VCE=-30V
- 50
nA
Base Cutoff Current (VSE = 0.5 V)
VCE=-30V
- 50
nA
Collector-base Breakdown Voltage (IE = 0)
Ic=-101lA
- 60
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic =-10 mA
- 60
V
V(SR) ESO
Emitter-base Breakdown Voltage (Ic = 0)
IE=-101lA
-5
V
VCE (sat)
Collector-emitter Saturation Voltage
Ic =- 150 mA Ic =- 500 mA
Is =- 15 mA Is =- 50 mA
- 0.4 -1.6
V V
Base-emitter Saturation Voltage
Ic=-150mA Ic =- 500 mA
Is=-16mA Is =- 50 mA
- 1.3 - 2.6
V V
DC Current Gain
for 2N2904A and 2N2906A Ic =- 0.1 mA VCE=-10V Ic =- 1 mA VcE =-10V VCE = - 10 V Ic =- 10 mA Ic =- 150 mA VCE=-10V Ic =- 500 mA VcE =-10V
40 40 40 40 40
for 2N2905A and 2N2907 A Ic=-0.1mA VCE=-10V Ic =- 1 mA VCE=-10V Ic=-10mA VCE=-10V Ic =- 150 mA VCE=-10V Ic =- 500 mA VCE=-10V
75 100 100 100 50
Collector Cutoff Current (IE = 0)
Vcs = - 50 V Vcs = - 50 V
ICEx
Collector Cutoff Current (VSE = 0.5 V)
ISEx
Icso
V(SR) cso V(SR) CEO
VSE (sat) hFE
hFE
. .
.
. .
DC Current Gain
Min.
T amb = 150°C
Typ.
IlA
120
300
Transition Frequency
Ic =- 50 mA f = 100 MHz
V cE =-20V
CESO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VES = - 2 V
30
pF
Ccso
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs=-10V
8
pF
Delay Time
Ic =- 150 mA IS1 =- 15 mA
Vcc =- 30 V
10
ns
Rise Time
Ic =- 150 mA IS1 =- 15 mA
Vcc = - 30 V
40
ns
Storage Time
Ic =- 150 mA Vcc = - 6 V IS1 =-l s2 =-15 mA
80
ns
fT
td tr ts
..
.. ..
• Pulsed: pulse duration ~ 300 Ils, duty cycle ~ 1.5 % . • , See test circuit.
2/4
328
200
MHz
2N2904A-2N2905A-2N290SA-2N2907 A ELECTRICAL CHARACTERISTICS (continued) Max.
Unit
Fall Time
Ie =- 150 mA Vee =- 6 V lSI =-ls 2 =-15mA
30
ns
ton
.. ..
Turn-on Time
45
ns
loft
..
Ie =- 150 mA lSI =-15 mA
Turn-off Time
Ie =- 150 mA Vee=-6V lSI =-ls2 =-15 mA
100
ns
Symbol If
Parameter
Test Conditions
Min.
Typ.
Vee = - 30 V
• Pulsed: pulse duration = 300 ~s, duty cycle = 1.5 %. **
see test circuit.
Normalized DC Current Gain.
Collector-emitter Saturation Voltage. VCE(sat) r-r-~-TTT11"rr,..,rmTTTr-'-T-TTITfT'1
IV)
0.8
0.4
0.2
0.1
Collector-base and Emitter-base capacitances.
10
100
Ie (rnA)
Switching Characteristics.
10
100
IC(mA)
3/4
329
2N2904A-2N290SA-2N290SA-2N2907 A Test Circuit for lon, tr, 1cJ.
1K Jl
°H
- 16V
V'N
200ns 5-4628
PULSE GENERATOR: tr::;;2.0 ms Frequency ~ 150 Hz Zo~50
n
TO OSCILLOSCOPE: tr < 5.0 ns Z'N> 10Mn
Test Circuit for toff, to, tf.
.J.. PULSE GENERATOR: 2.0 ns Frequency ~ 150 Hz
tr:S;
5-4629
TO OSCILLOSCOPE: tr < 5.0 ns ZIN > 100 Mn
Zo~50n ---------.-~---------------
4/4
330
2N3013 HIGH SPEED SATURATED SWITCHES DESCRIPTION The 2N3013 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case intended for high speed low saturation switching application up to 300 mA.
TO-18
INTERNAL SCHEMATIC DIAGRAM
5-1>897
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
Vcso
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VSE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
= 0)
= 0)
= 0)
Value
Unit
40
V
40
V
15
V
5
V mA
Ic
Collector Current
200
Ic
Collector Peak Current (t < 10 ~s)
500
mA
Ptot
Total Power Dissipation at T amb < 25 'C at T case < 25 DC at T case < 100 DC
360 1200 680
mW mW mW
T stg
Storage Temperature
- 55 to 200
°C
200
°C
TJ January 1989
Max. Operating Junction Temperature
1/2
331
2N3013 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
146 486
Max Max
ELECTRICAL CHARACTERISTICS (Tamb = 25°C unless otherwise specified) Symbol
Parameter
ICES
Collector Cutoff Current (VSE = 0)
.
Test Conditions VCE = 20 V VCE = 20 V
Tamb = 125°C
Min.
Typ.
Max.
Unit
300 40
nA flA
V(SR)CSO
Collector-base Breakdown Voltage
Ic = 100 flA
IE = 0
40
V
V(SR)CEO
Collector-emitter Breakdown Voltage
Ie = 10 mA
Is = 0
15
V
.
V(SR)ESO hFE
VeE(sat)
.
VSE(sat) *
IT Ceso C ESO
Emitter-base Breakdown Voltage
IE = 100 flA
Ie = 0
5
DC Current Gain
VeE=OAV VCE = 0.5 V VCE = 1 V VeE=OAV Tamb = 55°C
Ic Ie Ic Ie
= = = =
30 mA 100 mA 300 mA 30 mA
30 25 15
Collector-emitter Saturation Voltage
Ie = 30 mA Ie = 100 mA Ie = 300 mA Ie = 30 mA Tamb = 125°C
Is Is Is Is
= = = =
3 mA 10 mA 30 mA 3 mA
Base-emitter Saturation Voltage
Ie = 30 mA Ie = 100 mA Ie = 300 mA
Is = 3 mA Is = 10 mA Is = 30 mA
Transition Frequency
VeE=10V f=100MHz
Ie = 30 mA
Collector-base Capacitance
Vcs = 5 V;
IE = 0
f= 1 MHz
5
pF
f = 1 MHz
8
pF
15
ns
25
ns
18
ns
2/2
332
12
Emitter-base Capacitance
VEB = 0.5 V; Ic = 0
too
Turn-on Time
Vec = 15 V IS1 = 30 mA
toff
Turn-off Time
Ic = 300 mA Vec = 15 V IS1 = - IS2 = 30 mA
ts
Storage Time
Ie = 10 mA Vec = 10 V IS1 = -ls2 = 10 mA
• Pulsed: pulse duration
= 300 /lB, duty cycle = 1,5 %.
V 120
0.75
0.18 0.28 0.50
V V V
0.25
V
0.95 1.20 1.70
V V V
350
MHz
Ic = 300 mA
2N3014 HIGH SPEED SATURATED SWITCHES DESCRIPTION The 2N3014 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case intended for high speed low saturation switching application up to 300 mA.
TO-18
INTERNAL SCHEMATIC DIAGRAM
::4: 5-6897
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VBE
VCEO
Collector-emitter Voltage (Is
VEBO
Emitter-base Voltage (Ie
= 0)
= 0)
= 0)
Value
Unit
40
V
40
V
20
V
5
V mA
Ic
Collector Current
200
Ie
Collector Peak Current (t < 10 flS)
500
mA
Ptot
Total Dissipation at T amb < 25 'C at T case < 25 DC at T case < 100 'C
360 1200 680
mW mW mW
T stg
Storage Temperature
- 55 to 200
°C
200
°C
Tj October 1988
Maximum Operating Junction Temperature
1/2
333
2N3014 THERMAL DATA Rth j-case Rth j-amb
I Thermal Resistance Junction-case
Value
Unit
146 486
°C/W °C/W
Max Max
Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Collector Cutoff Current (V8E = 0) VCE=20V VCE=20V
ICES
Min_
Tamb = 125°C
Typ_
Max_
Unit
300 40
IlA
nA
V(8R)C80
Collector-base Breakdown Voltage
le=1001lA
IE = 0
40
V
V(8R)CEO
Collector-emitter Breakdown Voltage
Ic = 10 A
18 = 0
20
V
5
V
.
.
IlA
Emitter-base Breakdown Voltage
IE = 100
DC Current Gain
VeE=OAV VCE=OAV VCE = 1 V VCE=OAV Tamb =- 55°C
Ie Ic Ic Ic
= 10 mA = 30 mA = 100 mA = 30 mA
Collector-emitter Saturation Voltage
Ic =10 mA Ic =30 mA Ie = 100 mA Ic = 30 mA T amb = 125°C
18 18 18 18
= 1 mA = 3 mA = 10 mA = 3 mA
Base-emitter Saturation Voltage
Ic=10mA Ic =30 mA Ic=100mA
18 =1 mA 18 = 3 mA 18 = 10 mA
Transition Frequency
VCE=10V 1=100MHz
Ic =30 mA
CC80
Collector-base Capacitance
VC8 =5 V;
IE = 0
1=1 MHz
5
pF
CE80
Emitter-base Capacitance
VE8 = 0.5 V; Ic = 0
1=1 MHz
8
pF
ton
Turn-on Time
Vcc = 2 V 181 = 3 mA
16
ns
toff
Turn-off Time
Ic=30mA Vcc =2 V 181 =- 182 = 3 mA
25
ns
ts
Storage Time
Ic=10mA Vcc = 10 V 181 =-182 = 10 mA
18
ns
V(8R)E80 hFE
VCE(sat)
.
V8E(sat)
.
IT
• Pulsed: pulse duration ~ 300 MS. duty cycle ~ 1.5 %.
2/2
334
Ic = 0
25 30 25
120
12
0.70 0_75
0_18 0_18 0_35
V V V
0_25
V
0_80 0.95 1.20
V V V
350
MHz
Ic =30 mA
2N3019 2N3020
I I !
'I
HIGH CURRENT, HIGH FREQUENCY AMPLIFIERS DESCRIPTION The 2N3019 and 2N3020 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case, designed for high-current, high-frequency amplifier applications. They feature high gain and low saturation voltages.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
140
V
80
V
VCBO
Collector-base Voltage (I E = 0)
VCEO
Collector-emitter Voltage (IB = 0)
VEBO
Emitter-base Voltage (Ic = 0)
7
V
Collector Current
1
mA
0.8 5
W W
- 65 to 200
°C
Ie P tot
T stg , T j January 1989
Total Power Dissipation at T amb S 25°C at T case S 25°C Storage and Junction Temperature
1/2
335
2N3019-2N3020 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBo
Collector Cutoff Current (IE = 0)
lEBO V(BR)CBO V(BR)CEO
.
V(BR)EBO VCE(sat)
.
VBE(sat) hFE
. .
Test Conditions VCB = 90 V VCB =90 V
Tamb = 150°C
nA V
Collector-emitter Breakdown Voltage (IB =0)
Ic = 10 mA
80
V
Emitter-base Breakdown Voltage (Ie = 0)
IE = 100 IlA
7
V
Collector-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA
Base-emitter Saturation Voltage DC Current Gain
IB = 15 mA IB = 50 mA
0.2 0.5
V V
Ic = 150 mA
IB = 15 mA
1.1
V
Ic=0.1mA
V cE =10V For 2N3019 For 2N3020 VeE =10V For 2N3019 For 2N3020 VCE = 10 V For 2N3019 For 2N3020 VCE=10V For 2N3019 For 2N3020 VCE=10V VeE = 10 V
Small Signal Current Gain
Ic = 1 mA 1=1 kHz
Transition Frequency
Ic = 50 mA 1= 20 MHz
100
90 40
120
100 40
300 120
50 30 15
100
40
80 30
400 200
VCE=10V For 2N3019 For 2N3020
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =0.5 V
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
Noise Figu re lor (2N3019) only
Ic = 100 IlA f = 1 kHz
VCE=10V Rg = 1 KQ
Feedback Time Constant
Ic=10mA 1=4 MHz
VCE=10V
• Pulsed: pulse duration = 300 Ils. duty cycle = 1 %.
50 30
VCE = 5 V For 2N3019 For 2N3020
336
10 140
For 2N3019
2/2
nA IlA
Ic=1001lA
Ic = 1 A Ie = 150 mA T amb = - 55°C
rbb'C b,c
Unit
10 10
VEB = 5 V
Ie = 500 mA
NF
Max.
Emitter Cutoff Current (Ic = 0)
Ic = 150 mA
fr
Typ.
Collector-base Breakdown Voltage (I E = 0)
Ic = 10 mA
hie
Min.
100 80
MHz MHz 60
pF
12
pF
4
dB
400
ps
2N3053 AMPLIFIERS AND SWITCH DESCRIPTION The 2N3053 is a silicon planar epitaxial NPN transistor in Jedec TO-39 metal case, intended for medium-current switching and amplifier applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector-base Voltage (I E = 0)
60
V
VCEo
Collector-emitter Voltage (IB = 0)
40
V
VEBO
Emitter-base Voltage (Ic = 0)
5
V
700
mA
Ic Ptot T stg , Tj January 1989
Collector Current Total Power Dissipation at T case
$
Storage and Junction Temperature
25°C
5
W
- 65 to 200
°C 1/2
--~.----
337
2N3053 THERMAL DATA Thermal Resistance Junction-case
Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Test Conditions
Parameter Collector Cutoff Current (VBE ~ 1.5 V)
VCE~60V
V(BR)CBO
Collector-base Breakdown Voltage (IE ~ 0)
Ic ~ 100 j.JA
V(BR)CEO
Collector-emitter Breakdown Voltage (18 ~ 0)
Ic
~
Collector-emitter Breakdown Voltage (RBE ,; 100)
Ic
~
Emitter-base Breakdown Voltage (Ic ~ 0)
IE ~ 100 f.lA
Collector-emitter Saturation Voltage
Ic
Base-emitter Voltage
Ic ~ 150 mA
Base-emitter Saturation Voltage
Ic
ICEX
V(BR)CER
.
V(BR)EBO VCE(sat) VBE
. . .
VBE(sat) hFE
.
IT C EBO
DC Current Gain Transition Frequency Emitter-base Capacitance Collector-base Capacitance
~
2/2
338
250
nA
40
V
10 mA
50
V
5
V
150 mA
150 mA
IB
~
15 mA
18
~
15 mA
VCE ~ 2.5 V
~
VCE~10V
I~
50 mA 20 MHz
Ic
~
0 1 MHz
VEB
~
VCB ~ 10 V
0
1.4
VCE ~ 2.5 V
Ic
150 mA
I ~ 1 MHz • Pulse: pulse duration = 300 ,us, duty cycle = 1 %.
Unit
100 f.lA
~
IE
Max.
V
Ic~150mA
~
Typ.
60
Ic
I CCBO
~
Min.
VCE~10V
~
0.5 V
25 50
V
1.7
V
1.7
V
250 100
MHz 80
pF
15
pF
2N3107/2N3108 2N31 09/2N311 0 GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N3107, 2N3108, 2N3109 and 2N3110 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case primarily intended for large signal, low noise industrial applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
2N3109 2N3110
2N3107 2N3108
Unit
VCBO
Collector-base Voltage (IE = 0)
80
100
V
V CEO
Collector-emitter Voltage (IB = 0)
40
60
V
VEBO Ic Ptot T stg , T j January 1989
Emitter-base Voltage (Ic = 0)
7
Collector Current
1
A
0.8 5
W W
- 65 to 200
°C
Total Power Dissipation at T amb $; 25°C at T case $; 25°C Storage and Junction Temperature
V
1/3
339
2N3107-2N3108-2N3109-2N3110 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Icso
Collector Cutoff Current (IE = 0)
ICES
Collector Cutoff Current (VSE = 0) VCE=60V
IESO V(SR)CSO
V(SR)CEO
.
Test Conditions Vcs=60V
Min.
Tamb = 150°C
Typ.
Max.
Unit
10 10
JJA nA
10
nA
Emitter Cutoff Current (Ic = 0)
VES = 5 V
Collector-base Breakdown Voltage (IE = 0)
Ic=100JJA For 2N 3109 and 2N 3110 For 2N 3107 and 2N 3108
80 100
V V
Collector-emitter Breakdown Voltage (Is = 0)
Ic=30mA For 2N 3109 and 2N 3110 For 2N 3107 and 2N 3108
40 60
V V
7
V
V(SR)ESO
Emitter-base Breakdown Voltage (lc = 0)
IE = 100 JJA
VCE(sa!)
Collector-emitter Saturation Voltage
Ic=150mA Ic = 1 A
Is = 15 rnA Is = 100 rnA
0.25 1
V V
Base-emitter Saturation Voltage
Ic=150mA Ic = 1 A
Is = 15 rnA Is = 100 rnA
1.1 2
V V
DC Current Gain
For 2N 3107 and 2N 3109 Ic=150mA VCE = 1 V Ic =0.1 rnA VCE=10V Ic = 500 rnA VCE =10V Ic = 150 rnA VCE=10V Tamb =- 55°C For 2N 3108 and 2N 3110 Ic=150mA VCE = 1 V Ic =0.1 rnA VCE=10V Ic =500 rnA VCE = 10 V Ic = 150 rnA VCE = 10 V Tamb =- 55°C
VSE(sa!) hFE
.
fT
. .
Transition Frequency
Ic=50mA VCE = 10 V f = 20 MHz For 2N 3107 and 2N 3109 For 2N 3108 and 2N 3110
CESO
Emitter-base Capacitance
Ic = 0 f = 1 MHz
Ccso
Collector-base Capacitance
Vcs = 10 V IE = 0 f = 1 MHz For 2N 3107 and 2N 3108 For 2N 3109 and 2N 3110
NF ton toff
.. ..
Noise Figure
Ic = 30 JJA f = 1 kHz
VCE=10V Rg = 1 KQ
Turn-on Time
Ic = 150 rnA lSI = 7.5 rnA
Vcc=20V
Turn-off Time
Ic=150mA Vcc=20V lSI =-ls 2 =7.5 rnA
• Pulsed: pulse duration = 300 ~. duty cycle = 1 %. w* See test circuit.
2/3
340
VES = 0.5 V
100 35 40
300
30 40 20 25
120
15
70 60
MHz MHz 80
pF
20 25
pF pF
8
dB
200
ns
1000
ns
2N31 07-2N31 08-2N31 09-2N311 0 Normalized DC Current Gain.
Contours of Constant Narrow Band Noise Figure. ~.
RS
,
VCE~ltv :~. =1KHz L
-
(U ) - -
r-
-liT t
1\
:\6d9
f\it\ n:\~_ +:t_ -"" ·~R\~'dB
1K
i
'dB
I~
!.-
-~
100
4-;ie
6dK
. . t-
~ ._L :\ ~_
1)
i'-
0.01
01
lC (mAl
Test Circuit for ton, toff.
10,.uS n+16V
-.J
L
V1N
5- 4630 PULSE GENERATOR: t, of input pulse < 15 ns tr of input pulse < 15 ns
TO OSCILLOSCOPE: > 15 ns liN" 100 KQ ~
3/3
341
2N3114 HIGH VOLTAGE AMPLIFIER DESCRIPTION The 2N3114 is a silicon planar epitaxial NPN transistor in Jedec TO-39 metal case. It is primarily intended for high voltage, medium power applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
150
V
VCEO
Collector-emitter Voltage (Is = 0)
150
V
V ESO
Emitter-base Voltage (Ic = 0)
Ic Ptot T stg , T j January 1989
Parameter
5
V
Collector Current
150
mA
Total Power Dissipation at T amb :5 25°C at T case :5 25°C
0.8 5
W W
65 to 200
°C
Storage and Junction Temperature
1/2
343
2N3114 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
IcBo
Collector Cutoff Current (IE = 0)
"C unless otherwise specified) Test Conditions
VCB=100V VCB=100V
Min.
Typ.
T amb = 150 °C
Max.
Unit
10 10
/.lA
100
nA
nA
Emitter Cutoll Current (Ic = 0)
VEB = 4 V
V(BR)CBO
Collector-base Breakdown Voltage (I E = 0)
Ic = 100
/.lA
150
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 10 mA
150
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 f.lA
5
V
VCE(sa!) *
Collector-emitter Saturation Voltage
Ic =50 mA
VBE(sa!) *
Base-emitter Saturation Voltage
Ic =50 mA
IB = 5 mA
DC Current Gain
Ic = 100 /.lA Ic = 30 mA Tamb = - 55 'C Ic =30 mA
VCE=10V V CE=10V
15 30
35 60
VCE=10V
12
24
High Frequency Current Gain
Ic =30 mA 1= 20 MHz
VCE=10V
CEBO
Emitter-base Capacitance
VEB = 0.5 V 1=1 MHz
80
pF
CCBO
Collector-base Capacitance
VCB = 20 V 1=1 MHz
9
pF
lEBo
hFE *
hIe
*
= 25
Max Max
Pulsed: pulse duration = 300 fls. duty cycle = 1 %.
2/2
344
IB = 5 mA
1
V
0.9
V
120
2
2N3137 RF AMPLIFIER DESCRIPTION The 2N3137 is a silicon planar epitaxial NPN transistor in a TO-39 metal case. It is a primarily designed for application as a Class-C, RF power amplifier. In addition to the large signal capabilities, the low noise and high transition frequency of the 2N3137 provide excellent performance in a variety of linear amplifier for telecommunication applications. TO-39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ptot T stg , Tj
January 1989
Parameter
Value
Unit
40
V
20
V
= 0) Collector-emitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
4
V
Total Power Dissipation at T amb <: 25°C at T case <: 25 DC
0.6 1
W W
- 65 to 200
°C
Collector-base Voltage (IE
Storage and Junction Temperature
1/3
345
2N3137 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
ICBo
Collector Cutoll Current (IE = 0)
V(BR)CBO VCEO(sus)
.
V(BR)EBO VCE(sa!)
.
=
Max Max
25 'C unless otherwise specified) Test Conditions
VCB = 20 V VCB =20 V
T amb = 150°C
Unit
50 50
~
nA
40
V
Collector-emitter Sustaining Voltage (IB = 0)
Ic = 15 mA
20
V
Emitter-base Breakdown Voltage (Ic = 0)
IE = 1OO IlA
4
V
Collector-emitter Saturation Voltage
Ic = 50 mA
IB = 5 mA VCE = 5 V
Ic = 50 mA
Power Gain (class-C)
V cE =20V 1= 250 MHz
Pi = 100 mW
NF
Noise Figure
VCE=10V 1= 200 MHz
Ic = 30 mA Rg = 50 Q
0.12
0.3
20
70
120
6
7
dB
4
dB
2.8
3.5
V
pF
Collector-base Capacitance
VCB=10V
1=1 MHz
IT
Transition Frequency
Ic = 50 mA
V cE =10V
500
750
MHz
11
Collector Efliciency
VcE =20V 1=250 MHz
Pi = 100 mW
40
60
%
CCBO
Pulsed: pulse durallon
346
Max.
0.12 0.1
Ic = 100 IlA
DC Current Gain
2/3
Typ.
Collector-base Breakdown Voltage (IE = 0)
G pe
hFE
Min.
= 300 ~s, duty cycle = 1 %.
2N3137 DC Current Gain.
Collector-emitter Saturation Voltage.
10- 1
Base-emitter Saturation Voltage.
10.
Ie (rnA)
Contours of Constant Transition Frequency. G-31,2212
I II'
VBE(sat ) (v)
. nt + Ie =10181
-
I
0..9
tJ
-
l-
I
08 I
I
25'C
,
.........r
0..7 0..6
+'
"L' I
I
--
100·C
--
V
~i;'!IT
Ii!
05
-""
~
=~55·C
lamb
f-- .
i
0..4
I II
,
10-1
.-
-l-
H, II
-( I
, '8
'8
1
Collector-base capacitance.
, '8 10.
'C{mA)
Emitter-base capacitance.
0..5
1.5
2.5 VEB (V)
3/3
347
2N3250 2N3251 AMPLIFIERS AND SWITCHES DESCRIPTION The 2N3250 and 2N3251 are silicon planar epitaxial PN P transistors in Jedec TO-18 metal case. They are suited for switching and amplifier applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
::4: ABSOLUTE MAXIMUM RATINGS Symbol VC80 VCEO VE80 Ic Ptot T stg , T j Jan uary 1989
Parameter
Value
Unit
= 0) Collector-emitter Voltage (18 = 0) Emitter-base Voltage (Ic = 0)
- 50
V
- 40
V
-5
V
Collector Current
- 200
mA
0.36 1.2
W W
- 65 to 200
°C
Collector-base Voltage (IE
Total Power Dissipation at T amb ,,; 25°C at T case ,,; 25°C Storage and Junction Temperature
1/3
349
2N3250-2N3251 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
146 487
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Max.
Unit
VCE=-40V
- 20
nA
Base Cutoff Current (VsE=3V)
VCE=-40V
- 50
nA
Coillector-base Breakdown Voltage (I E = 0)
Ic= -10J.!A
- 50
V
Collector-emitter Breakdown Voltage (Is = 0)
Ic =- 10 mA
- 40
V
V(SRI ESO
Emitlter-base Breakdown Voltage (Ic = 0)
IE=-10J.!A
-5
V
VCE
(satl
Collector-emitter Saturation Voltage
Ic=-10mA Ic =- 50 mA
IB =- 1 mA IB =- 5 mA
VSE
(sat)
Base-emitter Saturation Voltage
Ic =-10 mA Ic =- 50 mA
IB =- 1 mA Is =- 5 mA
0.6
DC Current Gain
lor 2N3250 Ic =- 0.1 mA Ic =- 1 mA Ic =-10 mA Ic =- 50 mA lor 2N3251 Ic =- 0.1 mA Ic=-1 mA I c =-10mA Ic =- 50 mA
VCE =-1 V VCE =- 1 V VCE=-1V VCE =-1 V
40 45 50 15
VCE = - 1 V VCE = - 1 V VCE=-1V VCE = - 1 V
80 90 100 30
Ic =- 1 mA 1=1 kHz
VCE=-10V lor 2N3250 lor 2N3251
50 100
Ic =- 10 mA 1=100MHz
VCE = - 20 V lor 2N3250 lor 2N3251
250 300
ICEx
Collector Cutoff Current (VBE = 3 V)
IBEx V(SRICSO V(SRICEO
hFE
.
hIe
IT
.
. .
Small Signal Current Gain
Transition Frequency
Test Conditions
Min.
Typ.
0.25 0.5
V V
0.9 1.2
V V
150
300
200 400 MHz MHz
CEBO
Emilter-base Capacitance
Ic = 0 1=1 MHz
VEB = - 1 V
8
pF
Ccso
Collector-base Capacitance
IE = 0 1=1 MHz
Vcs = - 10 V
6
pF
NF
Noise Figure
Ic=-100J.!A 1= 100 Hz
VCE =-5 V Rg = 1 kQ
6
dB
hie
Input Impedance
Ic=-1 mA 1=1 kHz
VcE =-10V lor 2N3250 lor 2N3251
6 12
kQ kQ
Ic=-1 mA 1=1 kHz
VCE=-10V lor 2N3250 lor 2N3251
h re
Reverse Voltage Ratio
• Pulsed: pulse duration
2/3
350
=300 IlS, duty cycle = 1 %.
1 2
10- 3 2x10- 3
2N3250-2N3251 ELECTRICAL CHARACTERISTICS (continued) Symbol hoe
Parameter
Test Conditions
Output Admittance
td
Delay Time
tf
Delay Time
Max.
Unit
40 60
I!S I!S
35
ns
Vee = 3 V
35
ns
Ic=-1mA f = 1 kHz
VCE=-10V for 2N3250 for 2N3251
Ic = 10 mA 181 = 1 mA
Vee = 3 V
le=10mA = 1 mA
181
Min. 4 10
Typ.
ts
Storage Time
Ic =10 mA Vee =3 V 181 = - 182 = 1 mA
200
ns
If
Fall Time
Ie =10 mA Vee =3 V 181 = - 182 = 1 mA
50
ns
le=-10mA
250
ps
rbb,Cb'C
Feedback Time Constant
• Pulsed: pulse duration = 300 ~, duty cycle
VeE=-20V
= 1 %.
~
"~I
SGS-THOMSON
3/3
iIiID1C1III@1m!.1MW1II1!!I1lIJ1IC1I
351
2N3301 2N3302 GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N3301 and 2N3302 are silicon planar epitaxial NPN transistors in Jedec TO-18 metal case. They are designed to cover a wide range of amplifier and switching applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
60
V
VCEO
Collector-emitter Voltage (IB = 0)
30
V
VEBO
Emitter·base Voltage (lc = 0)
5
V
Ic Ptot T stg , Tj January 1989
Parameter
Collector Current
0.5
A
Total Power Dissipation at T amb ~ 25°C at T case ~ 25°C
0.36 1.8
W W
- 65 to 200
°C
Storage and Junction Temperature
1/3
353
2N3301-2N3302 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
97.2 486
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
10 10
nA
10
nA
Collector Cutoff Current (VSE = 0)
Vcs =50 V VCB =50 V
Emitter-cutoff Current (Ic = 0)
VES = 3 V
V(SR)CSO
Coillector-base Breakdown Voltage (IE = 0)
Ic = 10 ~
60
V
V(SR)CEO *
Collector-emitter Breakdown Voltage (Is = 0)
Ic=10mA
30
V
V(SR) ESO
Emittter-base Breakdown Voltage (Ic = 0)
IE=10~A
5
V
ICEs IEso
T amb = 150°C
~A
VCE
(sat) *
Collector-emitter Saturation Voltage
Ic=150mA Ic = 500 mA
Is = 15 mA Is =50 mA
0.22 0.6
V V
VSE
(sat) *
Base-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA
Is = 15 mA Is =50 mA
1.1 1.5
V V
DC Current Gain
for 2N3301 Ic =0.1 mA Ic = 1 mA Ic = 10 mA Ic=150mA Ic = 500 mA Ic = 150 mA for 2N3302 Ic=0.1mA Ic = 1 mA Ic = 10 mA Ic = 150 mA Ic = 500 mA Ic = 150 mA
hFE *
hfe
VCE=10V VCE=10V VCE=10V VCE=10V VCE=10V VCE = 1 V
20 25 35 40 20 20
40 60 70
VCE=10V VCE=10V VCE=10V VCE=10V VCE=10V VCE = 1 V
35 50 75 100 50 50
80 140 200
VCE=10V
2.5
High Frequency Current Gain
Ic = 50 mA f = 100 MHz
CESO
Emitter-base Capacitance
VEs = 2 V f = 1 MHz
Ccso
Collector-base Capacitance
Vcs = 10 V f = 1 MHz
ton **
Turn-on Time
Ic = 300 mA IS1 = 30 mA
toff **
Turn-off Time
Ic = 300 mA Vcc = 25 V IB1 =-I B2 =30 mA
• Pulsed: pulse duration = 300 flS, duty cycle = 1 % . •• See test circuits.
2/3
354
Vcc = 25 V
120 60 50
300 125 75
20
pF
8
pF
60
ns
150
ns
2N3301-2N3302 Test Circu it for ton.
300ns 16V r-1 V O~ L IN
5- 4611 PULSE GENERATOR:
tr:::; 1.0 ns Z'N = 50 £l
TO OSCILLOSCOPE: tr 1.0 ns ZIN = 100 kn
Test Circuit for toft.
.~(CC="25V
Vss = -15V
500.0.
USO.o.
5 - 4612 PULSE GENERATOR: tr:::;20 ns Z,N=50n
TO OSCILLOSCOPE: tr :::; 1.0 ns ZIN = 100 kn
3/3
355
I
I I I I I I I
I I I I I I I I
I I I I I I
I I I I I I I I
I I I I
I I I I I I I I I I
I I I I I I I I I I I I I I
."
I I I I I I I I
I I I I I
I I I I I I I I I
I I I I
I I I I I I I I I I
I I I I I I I I
I I I
2 N3502/2 N3503 2N3504/2N3505 GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N3502, 2N3503, 2N3504 and 2N3505 are silicon planar epitaxial PNP transistors in Jedec TO-39 (2N3502, 2N3503) and in Jedec TO-18 (2N3504, 2N3505) metal cases. They are designed for high-speed saturated switching and general purpose applications.
TO-39
TO-18
INTERNAL SCHEMATIC DIAGRAM
:~:
L _ _ _ ___ ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
Vcso
Collector·base Voltage (IE
VCEO
Collector-emitter Voltage (Is
VEso
Emitter-base Voltage (IC
Ic
P'D'
TS'g, Tj
= 0)
Storage and Junction Temperature
October 1988
2N3503 2N3505
- 45
- 60
V
- 45
- 60
V
5
V
600
mA
2N3505 2N3503
0.4 0.7
W W
2N3505 2N3503
1.3 3
W W
- 65 to 200
°C
Collector Current Total power Dissipation at Tamb 00 25°C For 2N3504, For 2N3502, at Tcase 00 25°C For 2N3504, For 2N3502,
Unit
2N3502 2N3504
1/2
357
2N3052-2N3503-2N3504-2N3505 THERMAL DATA
Rth j-case Rth j-amb
I Thermal Resistance Junction-case
Max Max
Thermal Rsistance Junction-ambient
2N3502 2N3503
2N3504 2N3505
132°C/W 437°C/W
58.3°C/W 250°C/W
ELECTRICAL CHARATERISTICS (T amb = 25 'C unless otherwise specified) Symbol ICEs
Icso
V(SR)CSO
V(SR)CEO"
Parameter
Test Conditions
Min.
Collector Cutoff Current (VSE = 0) For 2N3503 and 2N3505 VCE = - 50 V For 2N3502 and 2N3504 VCE = - 30 V
Typ.
Max.
Unit
-10
nA
-10
nA
-10
nA
-10
nA
Collector Cutoff Current (IE = 0)
For 2N3503 and 2N3505 VCE =- 50 V Tamb = 150°C For 2N3502 and 2N3504 V cE =-30V T amb =150°C
Collector-base Breakdown Voltage (IE = 0)
Ic =- 1O IlA For 2N3503 and 2N3505 For 2N3502 and 2N3504
- 60 - 45
V V
Collector-emitter Breakdown Voltage (Is = 0)
Ic =- 10 mA For 2N3503 and 2N3505 For 2N3502 and 2N3504
- 60 - 45
V V
-5
V
V(SR)ESO
Emitter-base Breakdown Voltage (Ic = 0)
VCE(sat)"
Collector-emitter Saturation Voltage
Ic =-50 mA Is =- 2.5 mA Ic =-150 mA Is=-15mA Ic =- 500 mA Is=-50mA
- 0.25 - 0.4 -1.6
V V V
VSE(sat)"
Base-emitter Saturation Voltage
Ic =-50 mA Is =- 2.5 mA Ic =- 150 mA Is =- 15 mA Ic =- 500 mA Is =- 50 mA
-1 - 1.3 -2
V V V
DC Current Gain
Ic =- 0.01 mA Ic =- 0.1 mA Ic=-1mA Ic=-10mA Ic = - 150 mA Ic =- 500 mA Tamb =- 55°C Ic = 50 mA
VCE =- 10 V VCE=-10V VCE=-10V VCE=-10V VCE=-10V VCE=-10V
80 120 135 140 100 50
VCE=-10V
50
Transition Frequency
Ic =- 50 mA f=100MHz
VCE =- 20 V
CESO
Emitter-base Capacitance
Ic = 0 f = 100 kHz
VES =- 0.5 V
Ccso
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs=-10V
NF
Noise Figure
Ic = - 30 IlA f = 1 MHz
VCE=-5V RG = 10 KQ
ton
Turn-on Time
toff
Turn-off Time
hFE"
fT
• Pulsed: pulse duration = 300 ~s. duty cycle
2/2
358
IE=-101lA
= 1.5 %.
300
200
MHz 30
pF
8
pF
4
dB
Ic =- 300 mA Vcc =- 30 V IS1 =- 30 mA
40
ns
Ic = - 300 mA Vcc = - 30 V IS1 =-ls 2 =-30 mA
100
ns
2N3700 GENERAL PURPOSE AMPLIFIERS DESCRIPTION The 2N3700 is a silicon planar epitaxial NPN transistor in Jedec TO-18 metal case, intended for small signal, low noise industrial applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Value
Unit
Vcso
Collector-base Voltage (IE = 0)
t40
V
VCEO
Collector-emitter Voltage (Is = 0)
80
V
VESO
Emitter-base Voltage (Ic = 0)
7
V
Collector Current
1
A
0.5 1.8 1
W W W
- 65 to 200
°C
Symbol
Ic Ptot
T stg , Tj January 1989
Parameter
Total Power Dissipation at T amb at T case at T case
25°C S 25°C S 100°C
S
Storage and Junction Temperature
1/2
359
2N3700 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBo
Collector Cutoff Current (IE = 0)
Test Conditions VCB = 90 V Vcs=90V
Min.
Typ.
Tamb = 150°C
Max.
Unit
10 10
nA !lA nA
Emitter Cutoff Current (Ic = 0)
VEB = 5 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic = 100!lA
140
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (18 = 0)
Ic = 30 mA
80
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100!lA
7
V
Collector-emitter Saturation Voltage
Ic = 150 mA Ic = 500 mA
IB = 15 mA IB = 50 mA
0.2 0.5
V V
Base-emitter Saturation Voltage
Ic=150mA
IB=15mA
1.1
V
Ic = 0.1 mA Ic=10mA Ic = 150 mA Ic = 500 mA Ic = 1 A Ic=150mA T.mb = - 55°C
VcE =10V VCE =10V VCE=10V VCE =10V VCE=10V VCE=10V
lEBO
VCE(s.!)
.
VBE(s.!) hFE
.
.
10
DC Current Gain
Small Signal Current Gain
Ic = 1 mA 1=1 kHz
VCE = 5 V
IT
Transition Frequency
Ic = 50 mA 1= 20 MHz
VcE =10V
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =0.5 V
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
Feedback Time Constant
Ic = 10 mA 1=4 MHz
VCB=10V
• Pulsed: pulse duration = 300 1lS. duty cycle
2/2
360
= 1 %.
300
40
hfe
rbb,Cb'c
50 90 100 50 15
80
25
400 100
MHz
60
pF
12
pF 400
ps
2N3724 HIGH-CURRENT SWITCH DESCRIPTION The 2N3724 is a silicon planar epitaxial transistor in TO-39 metal case. It is a high-current switch used for memory applications requiring breakdown voltages up to 30 V and operating currents to 1 A.
fl I· ·: · .· ..........~~::< ····· ."
"."'::"'.
;........
~
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
50
V
VCES
Collector-emitter Voltage (VBE = 0)
50
V
VCEO
Collector-emitter Voltage (IB = 0)
30
V
VEBO
Emitter-base Voltage (Ic = 0)
6
V
Collector Current
1
A
0.8 3.5
W W
- 65 to 200
°C
Ic Ptot T stg , Ti January 1989
Parameter
Total Power Dissipation at T amb at T case
s: 25°C s: 25°C
Storage and Junction Temperature
1/3
361
2N3724 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
ICBo
Collector Cutoff Current (IE = 0)
=
Max Max
25 'C unless otherwise specified) Test Conditions
VCB =40 V VCB =40 V
Min.
Typ.
Tamb = 100°C
Max.
Unit
1.7 120
~ ~
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic =10 ~
50
V
V(BR)CES
Collector-emitter Breakdown Voltage (VBE = 0)
Ic =10~
50
V
V(BR)CEO
Collector-emitter Breakdown Voltage (IB = 0)
Ic = 10 mA
30
V
V(BR)EBO
IE = 10 itA
6
V
VeE (sa!)
.
Emitter-base Breakdown Voltage (Ie = 0) Collector-emitter Saturation Voltage
= 10 mA = 100 mA = 300 mA = 500 mA = 800 mA = 1000 mA
IB IB IB IB IB IB
= 1 mA = 10 mA = 30 mA =50 mA = 80 mA = 100 mA
VBE(sat)
.
Ic Ie Ic Ic Ic Ic
Base-emitter Saturation Voltage
Ic Ic Ic Ie Ic Ic
= 10 mA = 100 mA = 300 mA = 500 mA = 800 mA = 1000 mA
IB IB IB IB IB IB
= 1 mA = 10 mA =30 mA = 50 mA = 80 mA = 100 mA
Ic Ic Ic Ie Ic Ie
= 10 mA = 100 mA = 300 mA = 1000 mA = 800 mA = 500 mA
VCE VCE VeE VCE VCE VCE
hFE *
.
DC Current Gain
V V V V V V
High Frequency Current Gain
Ic =50 mA f=100MHz
VCE =10V
CCBO
Collector-base Capacitance
Ic = 0 f = 1 MHz
VCB=10V
CEBO
Emitter-base Capacitance
VEB = 0.5 V
ton
..
Ic =0 f = 1 MHz
Turn-on Time
Vcc = 30 V
toft
..
Ic = 500 mA IB = 50 mA
Turn off Time
Ie = 500 mA Vec =30 V IB1 =- IB2 = 50 mA
hie
• Pulsed: pulse duration = 300 Ils, duty cycle = 1 %. **
=1 =1 =1 =5 =2 =1
See test circuit.
2/3
362
0.64 0.75 0.89 0.9 1.0 1.1 30 60 40 30 25 35
60 90 60
0.25 0.20 0.32 0.42 0.65 0.75
V V V V V V
0.76 0.86 1.1 1.2 1.5 1.7
V V V V V V
150
3 12
pF
55
pF
35
ns
60
ns
2N3724 SWitching Characteristics.
Switching Characteristics. G·)155
'0
Ie 2
1(::10ISI =-10162 VCC=30V
,L-____ IlO
~L-
=SOOmA
2 IB1=-'82= SOmA '1:1:= 30V
, L-~~__L-(~~__L-~~__~
__~__~~-L~~ 400
200
600
Ie (mA)
-50
50
'00
Test Circuit for ton, toft.
t9'7~V'Nl1.0
F
62it 5 - 4610 PULSE GENERATOR:
TO OSCILLOCOPE :
If. IfS 1.0 ns PW = 1.0 ms
1, <
1.0 ns Z,N" 100 KW
Z'N = 50 W
DC<2%
3/3
363
2N3725 HIGH VOLTAGE, HIGH CURRENT SWITCH DESCRIPTION The 2N3725 is a silicon planar epitaxial transistor in TO-39 metal case It is a high-voltage, high current switch used for memory applications requiring breakdown voltages up to 50 V and operating currents to 1 A. Fast switching times are assured because of the high minimum IT (300 MHz) and tight control on storage time.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (V BE
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
Ic Pto , T S '9' T J January 1989
= 0)
= 0)
= 0)
Collector Current Total Power Dissipation at T amb at T case
,; ,;
25°C 25 'C
Storage and Junction Temperature
Value
Unit
80
V
80
V
50
V
6
V
1
A
0.8 3.5
W W
- 65 to 200
°C 1/4
365
I·
2N3725 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
leBo
Collector Cutoll Current (IE = 0)
Test Conditions VCB = 60 V VeB =60 V
Min.
Typ.
T amb = 100 °C
Max.
Unit
1.7 120
f-lA f-lA
V(BR)CBO
Collector-base Breakdown Voltage (I E = 0)
Ie = 10 f-lA
80
V
V(BR)CES
Collector-emitter Breakdown Voltage (VBE = 0)
Ic=10f-lA
80
V
V(BR)eEO *
Collector-emitter Breakdown Voltage (I B = 0)
50
V
6
V
Ie = 10 mA
V(BR)EBO
Emitter-base Breakdown Voltage (Ie = 0)
VeE(sat) *
Collector-emitter Saturation Voltage
le=10mA Ie = 100 mA Ie = 300 mA Ie = 500 mA Ie = 800 mA Ie = 1000 mA
IB = 1 mA IB = 10 mA IB = 30 mA IB =50 mA IB = 80 mA IB =100mA
0.19 0.21 0.31 0.4 0.5 0.6
0.25 0.26 0.4 0.52 0.8 0.95
V V V V V V
VBE(sat) *
Base-emitter Saturation Voltage
Ie Ie Ie Ie Ie Ie
= 10 mA = 100 mA =300 mA = 500 mA =800 mA = 1000 mA
IB IB IB IB IB IB
0.64 0.75 0.89
0.76 0.86 1.1 1.2 1.5 1.7
V V V V V V
Ie Ie Ie Ic Ic Ic
= 10 mA = 100 mA = 300 mA = 1000 mA = 800 mA = 500 mA
VeE VeE VCE VCE VCE VCE
hFE *
DC Current Gain
IE=10f-lA
= 1 mA = 10 mA = 30 mA = 50 mA = 80 mA = 100 mA =1 =1 =1 =5 =2 =1
V V V V V V
High Frequency Current Gain
Ic = 50 mA 1= 100 MHz
VCE=10V
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=10V
C EBO
Emitter-base Capacitance
..
Ie = 0 1=1 MHz
VeB =0.5 V
Turn-on Time
Ie = 500 mA IB =50 mA
Vee = 30 V
tolf **
Turn olf Time
Ie = 500 mA Vee=30V IB1 =-IB2 = 50 mA
hIe
ton
• Pulsed: pulse duration = 300 Ils. duty cycle = 1 %. ** See test circu it.
2/4
366
0.9 1.0 1.1 30 60 40 25 20 35
60 90 60 65 40
150
3 10
pF
55
pF
35
ns
60
ns
2N3725 DC Current Gain.
Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage.
Contours of Constant Transition Frequency.
'a'
'0
Switching Characteristics.
Ie
(rnA)
Switching Characteristics. G 3156
t {ns)8 - -
I--t----
'....
L...--::
'0 ~ ~
i
'1--1-
_~.....d::::::'1--""
kp"'" _ t---
'I_I--
I--
f-
t--
6
--l--I--+--+-r--r , ', ,' C'l ,IL__~_~_~~~i~I~,~, 2
100
Ie'" SOOmA 2 'Bl:-IeZ" SOmA -
'C=10I Si =-10'S2 "CC=30V
200
400
600
Ie (mA)
---
--
+-
--- +--
'tc" 30V ,
L--L~_~-L_L--L~_~-L~
-50
50
'00
3/4
367
2N3725 Test Circuit for !on, toff.
VBB = -3.8V
+9.7fl
V,Nl1.0tUF 6211
5-4618 PULSE GENERATOR: tr, tl::;; 1.0 ns PW ~ 1.0 ~s l'N~50Q
DC<2%
4/4
368
TO OSCILLOSCOPE: tr < 1.0 ns liN;' 100 KQ
2N3866 BFR97 VHF-UHF POWER AMPLIFIER DESCRIPTION The 2N3866 and BFR97 are silicon planar epitaxial NPN transistor in Jedec TO-39 metal case. They are designed for VHF-UHF class A, B, or C amplifiercircuits and oscillator applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCES
Collector-emitter Voltage (VBE = 0)
55
V
VCEO
Collector-emitter Voltage (IB = 0)
30
V
Emitter-base Voltage (Ic = 0)
3.5
V
Collector Current
0.5
A
VEBO Ic Ptot T stg , Tj March 1989
Total Power Dissipation at T case"; 25 'C Storage and Junction Temperature
5
W
- 65 to 200
°C 1/3
369
2N3866-BFR97 THERMAL DATA Thermal Resistance Junction-case
ELECTRICAL CHARACTERISTICS(T amb Symbol
Max
35
= 25 'C unless otherwise specified)
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
20
>LA
Collector Cutoll Current (IB = 0)
VCE =28 V
Collector-emitter Breakdown Voltage (VBE = 0)
Ic =0.1 mA
55
V
Collector-emitter Sustaining Voltage (I B = 0)
Ie = 5 mA
30
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE = 100 >LA
3.5
V
VCE(sat)
Collector-emitter Saturation Voltage
Ie = 100 mA
IB = 20 mA
DC Current Gain
Ie = 50 mA Ie = 360 mA
VCE = 5 V VCE = 5 V
Transition Frequency
Ie = 50 mA 1= 200 MHz
VCE=15V
Collector-base Capacitance
IE = 0 1=1 MHz
VCB=-28V
Po"
Output Power
Vcc = - 28 V 1=400 MHz
Pi = 100 mW
11 ••
Collector Elliciency
Vcc=-28V 1=400 MHz
Po = 1 W
ICEO V(BR)CES VCEO (sus)
hFE
.
.
.
IT CCBO
• Plused : pulse duration
1 10 5
200
500
MHz 3
W
45
%
= 300 ms, duty cycle = 1 %.
= 400 MHz). Ct, C2, C4, Cs = 3 - 25 pF CF 7-15 pF Rt = 5.6 Q R2 = 1 kQ L1, L2 = 5 cm Line (2 x 5 mm) L3, Ls, L6 = RF choke 0.1 >LH L4 = Ferrite choke 1 mm
2/3
370
pF
1
"" See test circuit.
Test Circuit for Power Output Measurement (f
V
2N3866-BFR97 Collector-base Capacitance.
High Frequency Current Drain.
G-3J94
ht0l----f---l-++++I++_ --+-+-+-~,f-l-+j,
~;~~ f-+-H-+-H-+--H-+--H-+-+-+-+-+-+-+-1
, II
t =200MHz
15 ~
!
'Jo
I
~MJ~o+~~~r~~~it+jj~+ +_+_++++ -
o
2
I
,
16
10
24
32
VCB(V)
Power Rating Chart.
RF Output Power.
G-3391
Po . -_ _ _ _,-----_ _,--_,----".0;20'",,{392"
(W)r------r---r--~VCC=-28V
,* 0.8
a5L-----L---L--~~~
100
200
300
400
f (MHz)
40
80
120
3/3
371
I I I I I I I
I I I I I
I I I I I
I I
I I
I I I I I I I I I I
I I I
I I
I I I I I
I I
I I
I I I
I I I I I I I
I I I
I I
I I I I I
I I
I I I
I I
I I I I I I I I I I
I I
I I I I I
I I I I I
I I
I I I I I I I I I I
2N3930 2N3931 HIGH-VOLTAGE AMPLIFIERS DESCRIPTION The 2N3930 and 2N3931 are silicon planar epitaxial PNP transistors in Jedec TO-18 (2N3930) and Jedec TO-39 (2N3931) metal cases. Both devices feature high voltage, high gain, low noise and excellent current gain linearity from 10 ~ to50 mAo
T()'18
TO-39
INTERNAL SCHEMATIC DIAGRAM
S_6896
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VC80
Collector-base Voltage (IE = 0)
-180
V
VCEO
Collector-emitter Voltage (18 = 0)
-180
V
VE80
Emitter-base Voltage (Ic = 0)
Ic Ptot
T stg , Tj Octobe(1988
Parameter
Collector Current Total Power Dissipation at T amb " 25°C For 2N3930 For 2N3931 at T case" 25°C For 2N3930 For 2N3931 Storage and Junction Temperature
-6
V
-100
mA
0.4 0.7
W W
1.4 2.5
W W
- 55 to 200
°C 1/4
373
2N3930·2N3931 THERMAL DATA Rth j~case
R!h j·amb
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
2N3930
2N3931
125°CfW 438°C/W
70°C/W 250°C/W
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
ICBo
Collector Cutoff Current (IE = 0)
Test Conditions VCB =- 100 V VCB =- 100 V
Min.
Tamb = 125°C
Emitter Cutoff Current (Ic = 0)
VEB =-4 V
V(BR)CBO
Collector-base Breakdown Voltage (IE = 0)
Ic =- 10
V(BR)CEO
Collector-emitter Breakdown Voltage (IB = 0)
Ic = - 2 mA
- 180
V(BR)EBO
Emitter-base Breakdown Voltage (Ic =0)
IE=-101lA
-6
VCE(sa!)
Collector-emitter Saturation Voltage
Ic =- 10 mA
IB =- 1 mA
Base-emitter Saturation Voltage
Ic=-10mA
IB=-lmA
DC Current Gain
Ic=-101lA Ic=-lmA Ic =- 10 mA Ic=-101lA Tamb = - 55°C Ic=-1001lA Tamb =- 55 OC
VCE=-10V VCE=-10V VCE=-10V VCE=-10V
lEBO
.
VBE(sa!) hFE
.
. .
IlA
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =- 0.5 V
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB =-5V
Noise Figure
Ic =-10 IlA Rg =10kn 1=10kHz 1=1 kHz 1= 100 Hz
VCE =- 5 V
• Pulsed: pulse duration = 300 J-lS, duty cycle = 1 %.
214 374
Unit
-10 -10
IlA
-10
nA
nA
V V V - 0.1
-0.25
- 0.74 - 0.9 60 80 80
110 170 200
15
60
30
90
40
60
160
20
25
5
7
1 1 2
3 3 10
V V
300
VCE=-10V
Ic=-lmA I =20 MHz
NF
Max.
- 180
Transition Frequency
IT
Typ.
VCE=-10V
B =2 kHz B =200 Hz B = 20 Hz
MHz pF pF
dB dB dB
2N3930-2N3931 DC Current Gain.
Collector-emitter Saturation Voltage. G 31!>7
111111111 VCE =-IOV
II
240
200
160
-VCE(sa tl
I IIII
(V)
-I C =-101 6
lamb': 125-(
.,1
H" illL
II Ir'" II
j.
120
G 3158
1111111:1 I 111111 I
0.2
25';>-
_._. 1-'
0,15
VI ,,',I
I
lili
I
0.1
II, II III
I I
40
,
'
0.05
;
i
I,
2
10-'
10 -Ie (mA)
Base-emitter Saturation Voltage.
,
~-i
II
L
·c
Tamb=125
'''hI
,,'
'0
1
....;. -+
_SSe eV-
"
II /[/
I ... ,
~.......
I
25'e, I
/
I
/
~t
!
-55'< i
I
"
I
2
, "
2
11I
I IIIII
(V)
I !
0.8
G 3162
0.6
....- H-
f.--""
'~ ..-
I
11
,j , ,
to- '
2
!
! ,
II
LL 2C
G
4
~Iei~~
r
10
,
-c' VCE =-5V f ",100Hz B =20Hz '
"""'"
-
r\
"\
10-1
, ,
....
",0
.~
..
, ,
..
10
aHo::t
.........
""
6
4',
N,
2
......
........ c_
3166
1~
~
-----"
...
i
III
Contours of Constant Noise Figure (f = 100 Hz).
,
,
'Ii"
1
!
~I.E=O
10
(kfi)
I
10-'
i~
"9 •
ri'j-j-
-
,
G 3163
j-H-
.= =-
I
I
-Ie (mA)
_. 0
f-
I
Contours of Constant Transition Frequency.
'- 5i.iH~
',I
,
1+
10
~~-~I
I
:lj)CI , , I I I ,II
1
.r=''l
-
,
10
[
---
I I
eEBo Ie =0.
!
10
I I
!
-tt t 2
I'--
-T
I
I'
:JTl til
0.2
j
I
f.--""
~r-'
i
r
0.4
--
,
=-r--
(pFl
lamb =-55~
.1.
r-
e •
....... ~
II
V
(mA)
Emitter-base and collector-base capacitances. C. 3159
-VBE(sat )
, "
-Ie
10
, ,
..
-Ie (mAl
lO-1
I'6
,
2dB 4
.........
~-
......
~ r--.....
.......
............. ~
, ,. -IC(mA)
3/4
375
2N3930-2N3931 Contours of Constant Noise Figure (f = 1 kHz). Rg
,
(kO)
6
~ i
""
:'"
,~
~ ,
'"
,
'"
8
",
6
VeE =-5V f =10kHz
6
5
..........
t---..' i'.
B =2kHz
4
4
3
ld8
II
~
"8
3 ..........
~
~
10-1
-Ie (mA)
6
.......
........... r-...
'"
,
-
,
'.""""'"N"'-
'"
(;-2065
I::' 't""TTTITffi,_-rnUUnmIT 1I11--H+I!IIl llIi-- - - - LlJulllWJL
"'-N ,
~
- - - I e =-10,uA, Rg =10kfi
f-
- - Ie
~-.-
=- lmA. Rg = , kQ
V~'::5V'-
d8
I'-.
I
4
r-;:6 r-;;:
~"
10.1
.1
(mA)
Noise Figure vs. Frequency.
16
,
,.
-Ie
G-31 9
, I----VeE --5V , I----- != B-10Hz to 10kHz
Iii
~ ~4
Contours of Constant Wide Band Noise Figure.
376
8
..........
10- 2
4/4
0
(kn) 6
r--.... f-.-~
,~ ti;.,,: I's--s
I kill
,
G- 368
Rg ,
1 VCE =- 5V f =lkHz 8= 200Hz
Rg
Contours of Constant Noise Figure (f = 10kHz).
(",-31&7
1'-
I
'" .......
-\
~
...............
l"'-
K "'-"
j--.......
1'--
to- 2
10-1
r-....
II
,
~
,.
-Ie (mA)
4
lIl-
I0
'---
10
10'
10'
10'
10 6 f (Hz)
2 N3962/2 N3963 2N3964/2N3965 LOW NOISE, LOW LEVEL AMPLIFIERS DESCRIPTION The 2N3962, 2N3963, 2N3964 and 2N3965 are silicon planar epitaxial PNP transistors in Jedec TO-18 me-tal case particularly intended for use in low noise applications. They features are excellent current gain linearity from 1 f.lA to 50 mA.
TO-18
INTERNAL SCHEMATIC DIAGRAM
::-~: ABSOLUTE MAXIMUM RATINGS Value Symbol
Parameter
= 0) = 0)
VCBO
Coliector-bClse Voltage (IE
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
Ic Pto t T stg , T J October 1988
= 0)
Collector Current Total Power Dissipation at T amb <; 25°C at T case <; 25°C Storage and Junction Temperature
Unit
2N3964
2N3962 2N3965
2N3963
- 45
- 60
- 80
- 45
- 60
- 80
V V
-6
V
- 200
mA
0.36 1.2
W W
- 65 to 200
°C 1/3
377
2N3962-2N3963-2N3964-2N3965 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Collector Cutoff Current (VSE = 0) For 2N3964 VCE=-40V VCE = - 40 V T amb = 150°C For 2N3962 and 2N3965 VCE = - 50 V VCE = - 50 V T amb = 150°C For 2N3963 VCE = - 70 V VCE=-70V T amb = 150°C
ICEs
.
IEso V(SR)CSO
V(SR)CES
V(SR)CEO'
Typ.
Max.
Unit
-10 -10
IlA
-10 -10
IlA
-10 -10
IlA
-10
nA
nA
nA
nA
Emitter Cutoff Current (Ic = 0)
VES = - 4 V
Collector-base Breakdown Voltage (IE = 0)
Ic=-101lA For 2N3964 For 2N3962 and 2N3965 For 2N3963
- 45 - 60 - 80
V V V
Collector-base Breakdown Voltage (VSE = 0)
Ic=- 1O !lA For 2N3964 For 2N3962 and 2N3965 For 2N3963
- 45 - 60 - 80
V V V
Collector-emitter Breakdown Voltage (Is = 0)
Ic =-5 mA For 2N3964 For 2N3962 and 2N3965 For 2N3963
- 45 - 60 - 80
V V V
-6
V
V(SR)ESO
IE=-101lA
VCE(sa!)
.
Emitter-base Breakdown Voltage (Ic = 0)
Ic =- 10 mA Ic =- 50 mA
Is =- 0.5 mA Is =- 5 mA
- 0.25 - 0.4
V V
VSE(sa')
.
Collector-emitter Saturation Voltage Base-emitter Saturation Voltage
Ic =- 10 mA Ic =- 50 mA
Is =- 0.5 mA Is =- 5 mA
- 0.9 - 0.95
V V
DC Current Gain
For 2N3962 and 2N3963 Ic=-11lA VCE=-5V Ic=-101lA VCE=-5V Ic=- 1OO !lA VCE=-5V Ic = - 1 mA VCE=-5V Ic=-10mA VCE=-5V Ic =- 50 mA VCE=-5V VCE=-5V Ic=- 10 !lA T amb = - 55°C
hFE
.
• Pulsed: pulse duration
2/3
378
= 300 ~s, duty cycle = 1 %.
60 100 100 100 100 90 40
300 450
2N3962-2N3963-2N3964-2N3965 ELECTRICAL CHARACTERISTICS (continued)
.
Symbol hFE
hfe
IT
CEBO CCBO NF
Parameter DC Current Gain
Small Signal Current Gain
Transition Frequency
Emitter-base Capacitance Collector-base Capacitance Noise Figure
Test Conditions For 2N3962 and 2N3963 V cE =-5V Ic =- 50 mA Tamb = - 55°C Ic=-lmA VCE=-5V T amb = 100°C For 2N3964 and 2N3965 VCE=-5V Ic =-1 ~ Ic =- 1O IlA VCE=-5V Ic=-100~ VCE=-5V Ic=-1 mA VCE=-5V Ic =-10mA VCE =-5V Ic = - 50 mA VCE=-5V Ic=-10~ VCE=-5V Tamb = - 55 OC Ic =- 50 mA VCE=-5V Tamb =- 55°C Ic=-1mA VCE=-5V T amb = 100°C
Min.
Typ.
Max.
45 600 180 250 250 250 200 180
500 600
100 90
800
Ic=-lmA V cE =-5V 1=1 kHz For 2N3962 and 2N3963 For 2N3964 and 2N3965
100 250
550 700
Ic =-0.5 mA VCE =-5 V 1= 20 MHz For 2N3962 and 2N3963 For 2N3964 and 2N3965
40 50
160 160
Ic = 0 1=1 MHz
VEB =- 0.5 V
IE = 0 1=1 MHz
VCB=-5V
Unit
MHz MHz pF
15
Ic =- 20 IlA VCE =- 5 V RG = 10 kn For 2N3962 and 2N3963 I = IOta 10 000 Hz I = 100 Hz B = 15 Hz f = 1 kHz B=150Hz 1=10kHz B = 1.5 kHz For 2N3964 and 2N3965 I = lata 1a 000 Hz 1= 10 Hz B =2 Hz I = 100 Hz B = 15 Hz 1=1 kHz B = 150 Hz B = 1.5 kHz 1=10kHz
pF
6 2
3 10 3 3 2 8 4 2
dB dB dB dB dB dB dB dB
• Pulsed: pulse duration = 300 !!S, duty cycle = 1 %.
3/3 379
.
,
I I I I I I
I I I
I I I
I I I
I I I
I I
I I I I I I I
I I I
I I I
I I I
I I
I I I
I I I I I I I
I I I
I I I
I I
I I I
I I I
I I I I I I I
I I I
I I I
I I
I I I
I I I I I I I I I I
I I I
I I
I I I
I
2N4013 HIGH-CURRENT SWITCH DESCRIPTION The 2N4013 is a silicon planar epitaxial transistor in TO-18 metal case. It is a high-current switch used for memory applications requiring breakdown voltages up to 30 V and operating currents to 1 A.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
Vcso
Collector-base Voltage (IE
VCES
Collector-emitter Voltage (VSE
VCEo
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
Ic Ptot T stg , T j January 1989
= 0)
= 0)
= 0)
Collector Current Total Power Dissipation at T amb ~ 25°C at T case ~ 25°C Storage and Junction Temperature
Value
Unit
50
V
50
V
30
V
6
V
1
A
0.36 1.2
W W
- 65 to 200
°C 1/3
381
2N4013 THERMAL DATA Max Max
Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (Tamb = 25 °C unless otherwise specified) Min_
Max.
Unit
1.7 120 50
!lA !lA V
Ic = 10 IlA
50
V
Collector-Emitter Breakdown Voltage (Is = 0)
Ic = 10 mA
30
V
V(SR)ESO
Emitter-Base Breakdown Voltage (Ic = 0)
IE = 10!lA
6
V
VeE(sa!) *
Collector-Emitter Saturation Voltage
Ie Ie Ie Ic Ic Ie
= = = = = =
10 mA 100 mA 300 mA 500 mA 800 mA 1000 mA
Is Is Is Is Is Is
= = = = = =
1 mA 10 mA 30 mA 50 mA 80 mA 100 mA
VSE(sa!) *
Base-Emitter Saturation Voltage
Ie Ie Ie Ie Ie Ic
= = = = = =
10 mA 100 mA 300 mA 500 mA 800 mA 1000 mA
Is Is Is Is Is Is
= = = = = =
1 mA 10 mA 30 mA 50 mA 80 mA 100 mA
Ic Ie Ic Ie Ie Ic
= = = = = =
10 mA 100 mA 300 mA 1000 mA 800 mA 500 mA
VCE VCE VeE VCE VCE VeE
Symbol
Test Conditions
Parameter Collector Cutoff Current (IE = 0)
Vcs = 40 V Vcs = 40 V
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ie = 10 IlA
V(SR)CES
Collector-emitter Breakdown Voltage (VSE = 0)
V(SR)eEO *
Icso
hFE *
DC Current Gain
Typ-
Tamb = 100°C
= = = = = =
1V 1V 1V 5V 2V 1V
0.64 0.75 0.89 0.9 1.0 1.1 30 60 40 30 25 35
0.25 0.20 0.32 0.42 0.65 0.75
V V V V V V
0.76 0.86 1.1 1.2 1.5 1.7
V V V V V V
150
3
High Frequency Current Gain
Ie = 50 mA f= 100 MHz
VeE = 10 V
Ccso
Collector-base Capacitance
IE = 0 f= 1 MHz
Ves = 10 V
12
pF
CESO
Emitter-base Capacitance
Ie = 0 f= 1 MHz
VES = 0.5 V
55
pF
ton **
Turn-on Time
Ie = 500 mA Is = 50 mA
Vee = 30 V
35
ns
tOff **
Turn-off Time
Ic = 500 mA Vee = 30 V IS1 = - IS2 = 50 mA
60
ns
hIe
• Pulsed: pulse duration = 300 ).ls. duty cycle = 1 %. ** See test circuit.
2/3
382
2N4013 Switching Characteristics.
Switching Characteristics. I (ns)
, ,f------~-
Is
1~ ~: L---i
:r----
r-
-==-1--:- f--- ~t~ p
'r------
10
!
G' )55 ,
-
I
i--
I'-~I
~~
~~I ~
dt-C
'r-----
,
--~
-- -- -
Id
1--.+----+----+- - - - - - - - --- f---
--
Ie ::: SOOmA 1
2 iB1=-IBZ=50mA -- ~--t-~
IC=10ISi =_10 IBI "(C=30V
---+--1--1
\/cC 30 \/ ,L-~-L~_L-~~~_L-~~
tOO
400
200
600
-50
Ie (rnA)
50
'00
Test Circuit for lon, toff.
t97~VIN11.0
F
621t 5 - 4610
PULSE GENERATOR: Ir, If <; 1.0 ns PW ~ 1.0 ~s liN = 50 0 DC<2%
TO OSCILLOSCOPE: Ir < 1.0 ns liN ~ 100 KO
3/3
383
2N4014 HIGH-VOLTAGE, HIGH CURRENT SWITCH DESCRIPTION The 2N4014 is a silicon planar epitaxial transistor in TO-18 metal case. It is a high-voltage, high current switch used for memory applications requiring breakdown voltages up to 50 V and operating currents to 1 A. Fast switching times are assured because of the high minimum IT (300 MHz) and tight control on storage time.
TO-18
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector·base Voltage (IE = 0)
80
V
VCEs
Collector·emitter Voltage (VBE = 0)
80
V
VCEO
Collector-emitter Voltage (IB = 0)
50
V
VEBO
Emitter-base Voltage (Ic = 0)
6
V
Collector Current
1
A
0.36 1.2
W W
- 65 to 200
°C
Ic P tot T stg , T J October 1988
Total Power Dissipation at T amb at T case
,:; ,:;
25°C 25°C
Storage and Junction Temperature
1/4
385
2N4014 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISITCS(T amb = 25 'C unless otherwise specified) Test Conditions
Unit
1.7 120 80
flA flA V
Ic =10 flA
80
V
Collector-Emitter Breakdown Voltage (18 = 0)
Ic = 10 mA
50
V
Emitter-Base Breakdown Voltage (Ic = 0)
IE =10 IlA
6
V
Collector-Emitter Saturation Voltage
Ic Ic Ic Ic Ic Ic
= 10 mA = 100 mA = 300 mA = 500 mA = 800 mA = 1000 mA
18 18 Is Is 18 Is
=1 mA =10 mA = 30 mA = 50 mA = 80 mA = 100 mA
0.19 0.21 0.31 0.4 0.5 0.6
0.25 0.26 0.4 0.52 0.8 0.95
V V V V V V
Base-Emitter Saturation Voltage
Ic Ic Ie Ic Ic Ic
= 10 mA = 100 mA = 300 mA =500 mA = 800 mA = 1000 mA
18 18 18 18 18 18
= = = = = =
0.64 0.75 0.89
0.76 0.86
V V V V V V
Parameter
Collector Cutoff Current (IE = 0)
VC8 =60 V VC8 =60 V
V(8R)C80
Collector-base Breakdown Voltage (IE = 0)
Ic=10flA
V(8R)CES
Collector-emitter Breakdown Voltage (V8E = 0)
V(SR)CEO
IC80
.
V(8R)E80 VCE(sat)
V8E (sat)
,
,
,
Min_
Max.
Symbol
Tamb = 100 'C
1 mA 10 mA 30 mA 50 mA 80 mA 100 mA
0.9 1.0 1.1
VCE VCE VCE VCE VCE VCE
High Frequency Current Gain
Ic =50 mA f=100MHz
VCE=10V
CC80
Collector-base Capacitance
IE = 0 f = 1 MHz
Vcs = 10 V
10
pF
CE80
Emitter-base Capacitance
Ic = 0 f = 1 MHz
VE8 =0.5 V
55
pF
ton "
Turn-on Time
Ic = 500 mA Vcc = 30 V
18 =50 mA
35
ns
toff "
Turn-off Time
Ic = 500 mA Vcc =30 V 181 =-182 =50mA
60
ns
hIe
• Pulsed' pulse duration .. See test circuit.
2/4
386
=
300 ms. duty cycle
=
1 %.
=1 =1 =1 =5 =2 =1
V V V V V V
30 60 40 25 20 35
60 90 60 65 40
1.1
1.2 1.5 1.7
Ic=10mA Ic = 100 mA Ic = 300 mA Ic = 1000 mA Ic = 800 mA Ic = 500 mA
hFE
DC Current Gain
Typ.
150
3
2N4014 DC Current Gain.
Collector-emitter Saturation Voltage.
Base-emitter Saturation Voltage.
Contours of Constant Transition Frequency.
10
Switching Characteristics. t
ens)
, ~ts
-c---
--
----+
,I'--.. 10
6
~ :---'
I--.
t,
f-----
d
,
=R=
---
-r--. //
"",,1-:::::: __ "'"'i
t (ns)
~=
- I - f-
r-- r--
I
'PO ~
!
I
--
G 3156
, 6
I
10
-
,
(rnA)
Switching Characteristics. G- '50 ,
6
Ie
10'
-
i--
P-
~ ;:::.::: I--
,
~-
-'S I
f--
~
-~
i-i--
;.-- .....--~ 'i;"
~ F--
_.
i--
--- r--
6
td
Ie
IC=10ISi=-IOISl
--
f--
8~ - ~-=
=SOOmA
2 IS1 =-18Z= SOmA
V(C=30V
Vee'30V
.I 100
200
400
600
Ie (mAl
-50
50
100
3/4
387
2N4014 Test Circuit for lon, tofl.
+97~VINt1.0
F
621l. 5 - 4610
PULSE GENERATOR: Ir, If < 1.0 ns PW= 1.0~s liN; 500 DC<2%
4/4
388
TO OSCILLOSCOPE: tr= 1.0 ns liN> 100 KO
2N4030·2N4031 2N4032·2N4033 GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N4030, 2N4031 , 2N4032, and 2N4033 are silicon planar epitaxial PNP transistors in Jedec TO-39 metal case primarily intended for large signal, low noise industrial applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
::4: ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value 2N4030 2N4032
2N4031 2N4033
Unit
VCBO
Collector-base Voltage (I E = 0)
- 60
- 80
V
V CEO
Collector-emitter Voltage (IB = 0)
- 60
- 80
V
VEBO
Emitter-base Voltage (Ic = 0)
-5
Collector Current
-1
A
Total Power Dissipation at T amb " 25°C at T case" 25°C
0.8
4
W W
- 65 to 200
°C
Ic Ptot T stg , T j October 1988
Storage and Junction Temperature
V
1/4
389
2N4030-2N4031-2N4032-2N4033 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Collector Cutoff Current (IE = 0)
ICBo
Min.
For 2N4030 and 2N4032 VCB =- 50 V VCB=-50V T amb = 150°C For 2N4031 and 2N4033 VCB =- 60 V VCB=-60V T amb = 150°C
Typ.
Max.
Unit
- 50 - 50
nA iJA
- 50 - 50
nA iJA
Collector-base Breakdown Voltage (I E = 0)
Ic=-10iJA For 2N4030 and 2N4032 For 2N4031 and 2N4033
- 60 - 80
V V
Collector-emitter Breakdown Voltage (I B = 0)
Ic=-10mA For 2N4030 and 2N4032 For 2N4031 and 2N4033
- 60 - 80
V V
V(BR)EBO
IE = -10 iJA
-5
V
VCE(sal)
.
Emitter-base Breakdown Voltage (Ie = 0) Collector-emitter Saturation Voltage
- 0.15 - 0.5
V V
-1
V
VBE(sal)
.
Ic =-150 mA IB=-15mA IB =- 50 mA Ic =- 500 mA Ie =-1 A IB =- 100 mA For 2N4030 and 2N4032
Base-emitter Saturation Voltage
Ic =-150 mA IB=-15mA Ie =- 500 mA IB =-50mA IB =-100 mA Ic =-1 A For 2N4030 and 2N4032
- 0.9 -1.1
V V
-1.2
V
DC Current Gain
Ic=-100iJA VCE=-5V For 2N4030 and 2N4031 For 2N4032 and 2N4033 Ic=-100mA VCE=-5V For 2N4030 and 2N4031 For 2N4032 and 2N4033 Ie =- 500 mA VCE=-5V For 2N4030 and 2N4031 For 2N4032 and 2N4033 Ic =-1 A VCE=-5V For 2N4030 For 2N4031 For 2N4032 For2N4033 Ic =- 100 mA VeE=-5V Tamb = - 55°C For 2N4030 and 2N4031 For 2N4032 and 2N4033
V(BR)CBO
V(BR)CEO
hFE
.
.
• Pulsed: pulse duration •• See test circuit.
2/4
390
= 300
ms, duty cycle
=t
%.
30 75 40 100 25 70 15 10 40 25
15 40
120 300
2N4030-2N4031-2N4032-2N4033 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter Transition Frequency
IT
Min.
100 150
Typ.
Max.
Unit
400 500
MHz MHz
CEBO
Emitter-base Capacitance
Ic = 0 1=1 MHz
VEB =- 0.5 V
110
.pF
CCBO
Collector-base Capacitance
IE = 0 1=1 MHz
VCB = - 10 V
20
pF
ts **
Storage Time
Ic =- 500 mA Vcc=-30V IBl =-IB2 =-50 mA
350
ns
tf*'
Fall Time
Ic =- 500 mA Vcc=-30V IBl =-IB2=-50mA
50
ns
Turn-on Time
Ic =- 500 mA Vcc = - 30 V IBl = - IB2 = - 50 mA
100
ns
ton *'
•
Test Conditions Ic =- 50 mA VCE=-10V 1=100MHz For 2N4030 and 2N4031 For 2N4032 and 2N4033
Pulsed: pulse duration
=
300 ms. duty cycle
1 %.
=
** See test circuit.
Base-emitter Saturation Voltage.
Collector-emitter Saturation Voltage. G
G 3196
J195
-VCE(sat )
IV)
-VBE(sat )
I
--
f----- -
-lc=-10Ie
I---'
I
h~ ~ ~c
0.2
I
c--
--
'II
I II
III
-
---
-Ie
10'
10
6
6
8 (rnA)
T
, I ,
,
!
i
I
1 I
Ii
-Ie
(rnA)
I
10'
Collector-base Capacitance.
Transition Frequency. ('319711
C.-3198
I
'T
I
(MHz)
~-
I
,
160
-.......
I
I, II
,.......
-I-
I
V
120
II
IV
!II
!
j.
l-
i
f--
10
~""
80 I
'V, T I
-I40
j
I 6 ,I
B
10
' i
: ,I liT
:
I -lelO I. III I
0.2 ' - -
,
B
kr ' I
H1T125'C ~, .~~
t
1'1 6
11": n;'
=-55-£-+, IT 25 'c l.-+-
Tamb
0.8
0.6
,
i
I
f----
lamb = 125 G C-=;z 25°C
I
i
0.6
0.4
,
I
1.2
0.8
!HH
I
I V)
V
I
1,
It =ICO MHz VCE =-lOV
i 6 8
10
, I , 6'
10'
-
I I, I
I
JIJ II, I6' -'C(mA)
IE =0
10-'
10
-veB (V )
3/4
391
2N4030·2N4031 ·2N4032·2N4033 Test Circuit for ton, ts, !t. VSS=+4.1V
U
vIN
Vee
=-30V
t~O,.u:
- 10
62.!l
s- 4617 PULSE GENERATOR: Ir, If < 20 ns PW = 1.0!lS liN = 50 Q DC<2%
4/4
392
TO OSCILLOSCOPE: Ir~ 10 ns liN> 100 KQ
2N4035 GENERAL PURPOSE AMPLIFIERS AND SWITCHES DESCRIPTION The 2N4035 is a silicon planar epitaxial PNP transistors in Jedec TO-18 metal case, primarily intended for small signal, low noise industrial applications.
TO-18
INTERNAL SCHEMATIC DIAGRAM
::4: 5-6896
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
- 40
VCEO
Collector-emitter Voltage (18 = 0)
- 40
V
VEBO
Emitter-base Voltage (Ie = 0)
-5
V
-100
rnA
0.36 1
W W
- 65 to 200
°C
Ic Ptot T stg , Tj October 1988
Collector Current Total Power Dissipation at T amb " 25°C at T case " 25°C Storage and Junction Temperature
V
1/3
393
2N4035 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min_
Max.
Unit
-15 -15 - 40
nA J.!A V
Ic=-10J.!A
- 40
V
Collector-Emitter Breakdown Voltage (Is = 0)
Ic=-10mA
- 40
V
V(SR)ESO
IE=-10J.!A
-5
V
VCE(sat)
.
Emitter-Base Breakdown Voltage (Ic = 0) Collector-Emitter Saturation Voltage
Is =- 0.1 rnA Is =-1 rnA Is =- 5 rnA
VSE(sat)
.
Ic=-1mA Ic=-10mA Ic =- 50 rnA
Base-Emitter Saturation Voltage
Ic =- 1 rnA Ic=-10mA Ic =- 50 rnA
Is =- 0.1 rnA Is =- 1 rnA Is =- 5 rnA
Ic =-10 J.!A Ic =-100 J.!A Ic=-1mA Ic=-10mA Ic=-50mA Ic=-10mA Tamb = - 55°C
VCE=-1V VCE=-1V V cE =-1V VCE =- 1 V VCE=-1V VCE =-1 V
Collector Cutoll Current (VSE = 0)
VCE =- 30 V VCE =- 30 V
V(SR)CSO
Collector-base Breakdown Voltage (IE = 0)
Ic =-10J.!A
V(SR)CES
Collector-emitter Breakdown Voltage (VSE = 0)
ICES
V(SR)CEO
hFE
.
.
DC Current Gain
Small Signal Current Gain
Ic=-1mA 1=1 kHz
VCE=-10V
IT
Transition Frequency
Ic=-10mA 1= 100 MHz
VCE =- 20 V
Ic = 0 1=1 MHz
VES =- 0.5 V
IE = 0 1=1 MHz
Vcs=-10V
Ic=-1mA 1=100MHz
VCE=-5V R g =1000
Ic=-50mA 1st =-5 rnA
Vcc =- 30 V
Ccso NF ton toff hie
Emitter-base Capacitance Collector-base Capacitance Noise Figure Turn-on Time Turn-olf Time Input Impedance
• Pulsed: pulse duration = 300 j.ls. duty cycle = 1 %.
394
- 0.7 70 140 150 150 30
150
V V V
- 0.75 - 0.9 -1.1
V V V
300
450 MHz
450 pF 5.5 pF 3.5 dB 6 ns 40 ns
Ie =- 50 rnA Vce =- 30 V 1st =-l s2 =-5mA Ic=-1mA 1=1 kHz
- 0.13 - 0.14 - 0.3
70
hfe
CESO
2/3
Tamb = 125°C
Typ-
150 kO
VCE=-1OV 4
12
2N4035 ELECTRICAL CHARACTERISTICS (continued) Symbol
Parameter
Test Conditions
hr.
Reverse Voltage Ratio
Ic=-1mA f = 1 kHz
VCE=-10V
hoe
Output Admittance
Ic = -1 mA f = 1 kHz
VCE=-10V
Ic =- 10 mA f = 80 MHz
VCE =- 20 V
rbb'Cb,c
Feedback Time Constant
Min.
Typ.
Max.
Unit
4x10- 4
!-IS
8
40 ps 40
3/3
395
2N4036 MEDIUM-SPEED SWITCH DESCRIPTION The 2N4036 is a silicon planar epitaxial PNP transistor in Jedec TO-39 metal case. It is intended particularly as medium speed saturated switch and general purpose amplifier.
TO-39
INTERNAL SCHEMATIC DIAGRAM
::4: ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
= 0)
VCBO
Collector-base Voltage (IE
VCEX
Collector-emitter Voltage (V BE
VCER
Collector-emitter Voltage (RBE ,; 200 0)
VCEO
Collector-emitter Voltage (IB
V EBO
Emitter-base Voltage (Ic
Ic IB P'o' TS'g, Tj October 1988
= 1.5
V)
= 0)
= 0)
Collector Current Base Current Total Power Dissipation at T amb ,; 25 DC at T case'; 25 DC Storage and Junction Temperature
Value
Unit
- 90
V
- 85
V
- 85
V
- 65
V
-6
V
-1
A
- 0.5
A
1 7
W W
- 65 to 200
°C 1/3
397
2N4036 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Max.
Unit
ICBo
Collector Cutoff Current (IE = 0)
VCB=-60V
- 20
nA
ICEO
Collector Cutoff Current (IB = 0)
VCE=-30V
- 0.5
j.lA
lEBO
Emitter Cutoff Current (Ic = 0)
VEB = - 5 V
- 20
nA
V(BR)CBO
Collector-base Breakdown Voltage (I E = 0)
Ic=-100j.lA
- 90
V
V(BR)CEX *
Collector-emitter Breakdown Voltage (V BE = 1.5 V)
Ic=-10mA
- 85
V
V(BR)CER *
Collector-emitter Breakdown Voltage (RBE = 200 Q)
Ic = - 10 mA
- 85
V
V(BR)CEO *
Collector-emitter Breakdown Voltage (lB = 0)
Ic=-10mA
- 65
V
V(BR)EBO
Emitter-base Breakdown Voltage (Ic = 0)
IE =-100 j.lA
-7
V
VCE(Sal) *
Collector-emitter Saturation Voltage
Ic =-150 mA
IB = - 15 mA
VBE *
Base-emitter Voltage
Ic =-150 mA
VCE=-10V
hFE *
DC Current Gain
Ic =- 0.1 mA Ic =- 150 mA Ic =- 500 mA
VCE=-10V VCE=-10V VCE=-10V
Ic = - 50 mA f = 20 MHz
VCE=-10V
Ic = a f = 1 MHz
VEB = - 0.5 V
IE = a f = 1 MHz
VCB=-10V
Ic =- 150 mA IBI =-15 mA
Vcc = - 30V
fT CEBO CCBO ton ** toft **
Parameter
Transition Frequency Emitter-base Capacitance Collector-base Capacitance Turn-on Time Turn-off Time
* Pulsed: pulse duration ** See test circuit.
2/3
398
Test Conditions
=
300 fls, duty cycle
1 %.
20 40 20
Typ.
- 0.65
V
-1.1
V
140 MHz
60 pF 90 pF 30
Ic =- 150 mA Vcc=-30V IBI =-IB2 =-15 mA =
Min.
ns 110 ns 700
2N4036 Test Circuit for ton, toft. +V BB ::: 4V
-30V
Adjust IB1:162
?
Output to oo;,cilloo;,cope Z = 106n.
Output to oscilloo;,cope Z =10 6 0.
ern =20pF
Cin=20pF
ruT -O.65V-/\
f = 10KHz t r :!S10ns
-30vl Input -pulse wave form
5- 4631
~
lit.""!I
SGS-THOMSON
L
Output-pulse wave form
3/3
rnIilOlClIiIiiliUlC'ii"lIi@[!I]OICIII
399
2N4037 MEDIUM SPEED SWITCH DESCRIPTION The 2N4037 is a silicon planar epitaxial PNP transistor in a Jedec TO-39 metal case. It is intended particularly as medium speed saturated switch and general purpose amplifier.
TO-39
INTERNAL SCHEMATIC DIAGRAM
:~: ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
VCBO
Collector-base Voltage (IE = 0)
- 60
V
VCEO
Collector-emitter Voltage (IB = 0)
- 40
V
VCER
Collector-emitter Voltage (RBE " 200 0)
- 60
V
VCEV
Collector-emitter Voltage (VBE = 1.5 V)
- 60
V
VEBO
Emitter-base Voltage (Ic = 0)
-6
V
Collector Current
-1
A
Ic IB P tot T stg , T j
Parameter
Base Current Total Power Dissipation at T amb
"
25°C
Storage and Junction Temperature
November 1988
- 0.5
A
7
W
- 65 to 200
°C
1/2
401
2N4037 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Symbol
Parameter
=
Max Max
25 'C unless otherwise specified) Test Conditions
Min.
Typ.
Max.
Unit
ICBo
Collector Cutoff Current (IE = 0)
VCB=-60V
- 250
nA
ICEO
Collector Cutoff Current (IB = 0)
VCE = - 30 V
-5
IlA
lEBO
Emitter Cutoff Current (Ie = 0)
VEB=-5V
- 1
IlA
VEBO
Emitter-base Voltage
IE =- 100 IlA
-7
V
VeBO
Collector-base Voltage (IE = 0)
Ic =- 100 IlA
- 60
V
Collector-emitter Breakdown Voltage (IB = 0)
Ic =-10mA
- 40
V
Collector-emitter Saturation Voltage
Ie = - 150 mA
IB = - 15 mA
V(BR)CEV'
Collector-emitter Breakdown Voltage
Ic = - 10 mA
VBE = 1.5 V
- 60
V
V(SR)CER'
Collector-emitter Breakdown Voltage
Ic = - 10 mA
RSE =200 Q
- 60
V
V(BR)CEO VCE(Sat)
VBE hFE
.
.
hIe
.
.
Ie = 0
-1.4
Base-emitter Voltage
Ie =- 150 mA
VCE = - 10 V
DC Current Gain
Ic =- 1 mA Ic =- 150 mA
VeE=-10V VCE=-10V
15 50
- 1.5
Small Signal Current Gain
Ie =- 50 mA f = 20 MHz
VCE=-10V
3
V
V
250
CeBo
Collector-base Capacitance (IE = 0)
Vcs=-10V
30
pF
CEBO
Emitter-base Capacitance (IE = 0)
VEB = - 0.5 V
90
pF
• Pulsed: pulse duration
2/2
402
=
300
~s,
duty cycle
=
1,5 %.
2N4427 BFR98 VHF OSCILLATOR POWER AMPLIFIER DESCRIPTION The 2N4427 and BFR98 are silicon planar epitaxial NPN transistor in Jedec TO-39 metal case. They are designed for VHF class A, B, or C amplifier and oscillator applications.
TO·39
INTERNAL SCHEMATIC DIAGRAM
c
E
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Unit
Vcso
Collector-base Voltage (IE = 0)
40
V
VCEO
Collector-emitter Voltage (Is = 0)
20
V
VEBO
Emitter-base Voltage (Ic = 0)
3.5
V
Collector Current
0.5
A
Total Power Dissipation at T case ~ 25°C
3.5
W
- 65 to 200
°C
Ic Ptot T stg , T j January 1989
Parameter
Storage and Junction Temperature
1/3
403
2N4427-BFR98 THERMAL DATA
I Rth i-case I Thermal Resistance Junction-case
Max
50
°C/W
ELECTRICAL CHARACTERISITCS (T amb = 25 'C unless otherwise specified) Parameter
Symbol
Test Conditions
Collector Cutoff Current (IB = 0)
ICED
Min.
Typ.
Max.
Unit
20
JlA
VCE=12V
Collector-base Breakdown Voltage (IE = 0)
Ic = 100
Collector-emitter Sustaining Voltage (IB = 0)
JlA
40
V
Ic = 5 mA
20
V
Collector-Emitter Sustaining Voltage (RBE = 10 0)
Ic = 5 mA
40
V
V(BR)EBO
Emitter-Base Breakdown Voltage (Ic = 0)
IE =100
3.5
V
VCE(sa!)'
Collector-Emitter Saturation Voltage
Ic =100 mA
IB =20 mA
DC Current Gain
Ic =100 mA Ic =360 mA
VCE = 5 V VCE = 5 V
Transition Frequency
Ic =50 mA f = 200 MHz
VCE=15V
IE = 0 f = 1 MHz
VCB = 12 V
V(BR)CBO VCEO(sus) VCER(sus)
hFE
,
fT CCBO
, ,
JlA
0.5 10 5
200
500
MHz
Collector-base Capacitance 4
Po **
Output Power
Vce = 12 V f = 175 MHz
P 1 =100mW
11"
Collector Efficiency
Vcc = 12 V f=175MHz
Po = 1 W
RF Output Power.
W
50
%
Collector-base Capacitance. 3347
G-l]1o
Po (W)
1.6
f=lMHz
Pi =1o mW 1.2
l'
c '!'" U
.,.". ..,.".
0.8
lOmW
0..
100
404
200
JOO
'00
f( ..H
o
pF
1
• Pulsed: pulse duration = 300 !is, duty cycle = 1 %. ** See test circuit.
2/3
V
16
2.
32
VeslV)
2N4427-BFR98 TEST CIRCUIT
I
Test Circuit for Power Output Measurement (f = 175 MHz).
I
r
C4
",- 3016/1
C1. C2, C3, C4 = 3 + 30 pF C5 = 1000 pF C6 = 20 kpF R1 = 10W
L1 = 2 turns 16 wire, 3/16" 10, 1/4" long L2 = ferrite choke, Z = 450 W L3 = 2 turns 16wire, 1/4" 10, 1/4" long L4 = 4 turns 16 wire, 3/8" 10, 3/8" long
3/3 405
2N5109 EPITAXIAL PLANAR NPN CATV ULTRA-LINEAR HIGH GAIN TRANSISTOR The 2N51 09 is a multi-emitter silicon planar epitaxial NPN transistor in Jedec TO-39 metal case. It is designed for CATV-MATV amplifier applications over a wide frequency range (40 to 860 MHz).
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Value
Unit
VCBO
Collector-base Voltage (IE = 0)
Parameter
40
V
VCER
Collector-emitter Voltage (RBE ., 100)
40
V
VCEO
Collector-emitter Voltage (IB = 0)
20
V
VEBO
Emitter-base Voltage (Ic = 0)
3
V
A
Symbol
Ic
Collector Current
0.4
IB
Base Current
0.4
A
Total Power Dissipation at T amb ., 25°C at T case" 75°C
1 2.5
W W
- 65 to 200
°C
Ptot T 51g, Tj October 1988
Storage and Junction Temperature
1/3
407
r
2N5109 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
175 50
Max Max
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
5 5
mA mA
VCE=15V
20
~
VEB = 3 V
0.1
mA
Collector Cutoff Current (VBE =- 1.5 V)
VCE =35 V VCE=15V
ICEo
Collector Cutoff Current (IB = 0)
lEBo
Emitter Cutoff Current (Ic = 0) Collector-base Breakdown Voltage (IE = 0)
Ic =0.1 mA
40
V
Collector-emitter Sustaining Voltage (RBE = 10 Q)
Ic = 5 mA
40
V
Collector-emitter Sustaining Voltage (IB = 0)
Ic =5 mA
20
V
Collector-emitter Saturation Voltage
ICEx
V(BA) CBO VCEA
(sus)
VCEO VCE
(sus)
(sat)
,
T amb = 150°C
Ic=100mA
IB = 10 mA
DC Current Gain
Ic = 50 mA Ic = 360 mA
VCE=15V VCE = 5V
Transition Frequency
Ic = 50 mA f = 200 MHz
VCE=15V
Collector-base Capacitance
IE = 0 f = 1 MHz
VCB=15V
NF
Noise Figure
le=10mA Rg = 50 Q
VeE=15V f = 200 MHz
G pe
Power Gain (see test circuit)
Ie = 10 mA f = 200 MHz
VeE=15V PI=-10dBm
hFE
,
fT CCBO
, Pulsed: pulse duration
=
300 fls, duty cycle
=
0.5 70 5 1.2
3 11
TEST CIRCUIT Test Circuit for Power Gain Measurement (f = 200 MHz). 3';'15pF
3.;.15 pF
2/3
408
GHz 3.5
1 %.
V
210
pF dB dB
2N5109 High Frequency Current Gain.
Power Gain
h,eL-.J
(dB)
-
-_.-
'4 13
/'"
f----/ - - --~-------
l
G 1616
'~f:12
Collector Current.
Gp
VeE·~ 1S'"V-i--r---1-
'4
VS.
12
f =200MHz . . .CE =15'1
r---
--.l+
---
-
..
-
_-
I
--
-
-
f--
--
-------
"
--
10 10 2
10
20
Ie (mA)
Input Impedance 811 e (normalized 50 Q).
40
GO
Forward Transfer Coefficient 821e. 90'
G -3389
-90·
Reverse Transfer Coefficient 812e. 90'
Output Impedance 822e (normalized 50 Q). G-3390
G-3387
'BO'I--+-+--+--+---t"-p"-t"
-,
-90·
Iiii SCS-11tOMSON ':"JI ~U©IRI@~~I<©'irIRl@Il9U©!l
3/3
409
I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I
2N5179 VHF/UHF AMPLIFIER DESCRIPTION The 2N5179 is a silicon planar epitaxial NPN transistor in Jedec TO-72 metal case, intended for lownoise tuned-amplifier and converter applications up to 500 MHz.
TO-72
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Symbol VCBO VCEO VEBO Ie Ptot T stg , Tj October 1988
Parameter
Value
Unit
= 0) Collector-ermitter Voltage (IB = 0) Emitter-base Voltage (Ic = 0)
2.5
V
Collector Current
50
mA
Total Power Dissipation at T amb <; 25°C at Tease <; 25°C
200 300
mW mW
- 65 to 200
°C
Collector-base Voltage (IE
Storage and Junction Temperature
20
V
12
V
1/2
411
2N5179 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
583 875
ELECTRICAL CHARACTERISTICS (T amb = 25 'C unless otherwise specified) Symbol
Parameter
Test Conditions
Min.
Typ.
Max.
Unit
20 1
nA IlA
Collector Cutoff Current (IE = 0)
VCB=15V VCB=15V
V(BR) CBO
Collector-base Breakdown Voltage (IE = 0)
Ic = 1 jlA
20
V
VCEO(sus)
Collector -em itter Sustaining Voltage (IB = 0)
Ic = 3 mA
12
V
Emitter-base Breakdown Voltage (Ic = 0)
IE=10jlA
2.5
V
VCE (sat)
Collector-emitter Saturation Voltage
Ic = 10 mA
IB = 1 mA
0.4
V
VBE(sat)
Base-emitter Saturation Volt~ge
Ic = 10 mA
IB = 1 mA
1
V
hFE
DC Current Gain
Ic = 3 mA
VCE = 1 V
hIe
Small Signal Current Gain
Ic = 2 mA f = 1 kHz
VCE = 6 V
IT
Transition Frequency
Ic = 5 mA 1= 100 MHz
VCE = 6 V
C re
Reverse Capacitance
Ic = 0 1=1 MHz
VCE = 6 V
NF
Noise Figure
Ic=1.5mA 1= 200 MHz
VCE = 6 V Rg=125Q
G pe
Power Gain (neutralized)
Ic = 5 mA 1=200 MHz
VCE=12V Rg = 50 Q
Oscillator Power Output
Ic = 12 mA 1=500 MHz
Feedback Time Constant
Ic = 2 mA I =31.9 MHz
ICBo
V(BR)EBO
Po rbb,Cb·c
2/2 412
.
Tamb = 150°C
25
70
250
25
90
300
0.9
1.4
2
GHz
0.7
1
pF
3
4.5
dB
15
dB
21
VCB=10V mW
20 VCB = 6 V 3
7
14
ps
2N5320 2N5321 MEDIUM-POWER AMPLIFIERS DESCRIPTION The 2N5320 and 2N5321 are silicon planar epitaxial NPN transistors in Jedec TO-39 metal case. They are especially intended for high-voltage medium power applications in industrial and commercial equipments. The complementary PNP types are respectively the 2N5322 and 2N5323.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c B
E
ABSOLUTE MAXIMUM RATINGS Parameter
Symbol
= 0)
VCBO
Collector-base Voltage (IE
VCEV
Collector-emitter Voltage (VBE
VCEO
Collector-emitter Voltage (IB
VEBO
Emitter-base Voltage (Ic
= 1.5 V)
= 0)
= 0)
Value
Unit
2N 5320
2N5321
100
75
V
100
75
V
75
50
V
6
5
V
A
Ic
Collector Current
2
IB
Base Current
1
A
Total Power Dissipation at T amb :s; 25°C at T case :s; 25°C
1 10
W W
- 65 to 200
°C
Ptot T stg , Tj October 1988
Storage and Junction Temperature
1/2
413
2N5320-2N5321 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
17.5 175
Max Max
ELECTRICAL CHARACTERISTICS(T case = 25 "C unless otherwise specified) Symbol
Parameter
ICBo
lEBO
V(BR)CEV
V(BR)CEO
.
V(BR)EBO
VCE(sa!)
.
VBE
hFE
.
.
For 2N5320 VCB =BOV For 2N5321 VCB = 60 V
Emitter Cutoff Current (Ic = 0)
For 2N5320 VEB = 5 V For 2N5321 VEB = 4 V
Collector-emitter Breakdown Voltage (VBE = 1.5 V)
Ic =0.1 mA
Collector-Emitter Breakdown Voltage (IB = 0)
Ic = 10 mA
Emitter-Base Breakdown Voltage (Ic = 0)
IE =0.1 mA
Collector-Emitter Saturation Voltage
Ic = 500 mA
Base-Emitter Voltage
Ic = 500 mA
DC Current Gain
For2N5320 Ic = 500 mA Ic = 1 A For 2N5321 Ic =500 mA
>tA
5
>tA
0.1
j.lA
0.5
j.lA
75 50
V V
For2N5320 For 2N5321
6 5
V V
Is = 50 mA For2N5320 For 2N5321
O.B
V V
VCE = 4 V For 2N5320 For 2N5321
1.1 1.4
V V
VCE = 4 V VCE = 2 V
0.5
30 10
130
250
40 50
ton
Turn-on Time
Ic = 500 mA IS1 = 50 mA
Vcc=30V
toll
Turn-off Time
Ic = 500 mA Vcc=30V IS1 =-ls 2 = 50 mA 1 %.
~
0.5
For2N5320 For 2N5321
VCE = 4 V f=10MHz
=
Unit
V V
VCE = 4 V
300 .us. duty cycle
Max.
100 75
Ic = 50 mA
=
Typ.
For 2N5320 For 2N5321
Transition Frequency
A."'!I 414
Min.
fT
• Pulsed: pulse duration
2/2
Test Conditions
Collector Cutoff Current (I E = 0)
SCS-1lI0MSON UI;lllli:liI@rn~rnli:1i"IiI@IIlDIi:$
MHz
BO
ns
BOO
ns
2N5322 2N5323 MEDIUM-POWER AMPLIFIERS DESCRIPTION The 2N5322 and 2N5323 are silicon planar epitaxial PNP transistors in Jedec TO-39 metal case. They are especially intended for high-voltage medium power applications in industrial and commercial equipments.
TO-39
INTERNAL SCHEMATIC DIAGRAM
c
:~:
E
S_S896
ABSOLUTE MAXIMUM RATINGS Symbol
Value
Parameter
= 0)
Vcso
Collector-base Voltage (IE
VCEV
Collector-emitter Voltage (VSE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
= 1.5 V)
= 0)
= 0)
Unit
2N5322
2N5323
- 100 -100
-75
V
-75
V
-75
- 50 -5
V
-6
V
Ie
Collector Current
-2
Is
Base Current
-1
A
1 10
W W
- 65 to 200
DC
Ptot T stg , Tj October 1988
Total Power Dissipation at T amb at T case
" "
25 DC 25 DC
Storage and Junction Temperature
A
1/2
415
I
..
I
2N5322-2N5323 THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
Max Max
17.5 175
ELECTRICAL CHARACTERISTICS(T case = 25 'C unless otherwise specified) Symbol
Parameter
ICBO
lEBO
V(BR)CEV
V (BR)CEO
.
V(BR)EBO
VCE(sat)
.
VBE
hFE
.
.
For 2N5322 VCB = - 80 V For 2N5323 VCB = - 60 V
Emitter Cutoff Current (Ic = 0)
For 2N5322 VEB = - 5 V For2N5323 VEB =-4 V
Collector-emitter Breakdown Voltage (VBE=1.5V)
Ic=-0.1mA
Collector-emitter Breakdown Voltage (IB = 0)
Ic =- 10 mA
Emitter-base Breakdown Voltage (Ic = 0)
IE = -0.1 mA
Collector-emitter Saturation Voltage
Ic = - 500 mA
Base-emitter Voltage
Ic = - 500 mA
DC Current Gain
Unit
- 0.5
f.lA
-5
I1A
- 0.1
f.lA
- 0.5
I1A V V
For 2N5322 For2N5323
-75 - 50
V V
For2N5322 For 2N5323
-6 -5
V V
IB =- 50 mA For 2N5322 For 2N5323
- 0.7 - 1.2
V V
VCE=-4V For 2N5322 For 2N5323
- 1.1 -1.4
V V
VCE=-4V VeE =-2 V
30 10
130
250
VeE=-4V
40
VCE=-4V
50
ton
Turn-on Time
Ic =- 500 mA IB1=-50mA
Vcc=-30V
= 300 fls. duty cycle = 1 %.
Max.
- 100 - 75
Ic = - 50 mA f=10MHz
Turn-off Time
Typ.
For 2N5322 For 2N5323
Transition Frequency
• Pulsed. pulse duration
416
For2N5322 Ie =- 500 mA Ie =- 1 A For2N5323 Ic = - 500 mA
Min.
h
toff
2/2
Test Conditions
Collector Cutoff Current (IE = 0)
Ie =- 500 mA Vcc = - 30 V IB1 =-IB2=-50mA
MHz ns 100 ns 1000
2N5415S HIGH-VOLTAGE AMPLIFIER DESCRIPTION The 2N5415S is a silicon planar epitaxial PNP transistor in Jedec TO-39 metal case, intended for high vol-tage switching and linear amplifier applications.
TO-39
INTERNAL SCHEMATIC DIAGRAM
ABSOLUTE MAXIMUM RATINGS Symbol
Parameter
Vcso
Collector-base Voltage (IE
VCEO
Collector-emitter Voltage (Is
VESO
Emitter-base Voltage (Ic
=
=
0) =
0)
0)
ICM
Collector Peak Current
Ptot
Total Power Dissipation at T amb at T case
T stg , T J October 1988
25 "C <; 25°C
<;
Storage and Junction Temperature
Value
Unit
- 200
V
- 200
V
-4
V
1
A
1 10
W W
- 55 to 200
°C 1/2
417
2N5415S THERMAL DATA Thermal Resistance Junction-case Thermal Resistance Junction-ambient
ELECTRICAL CHARACTERISTICS (T amb Parameter
Symbol
=
Max Max
17.5 175
25 'C unless otherwise specified) Test Conditions
Typ.
Max.
Unit
ICBo
Collector Cutoff Current (IE = 0)
VCB=-175V
- 50
j.lA
ICEO
Collector Cutoff Current (lB = 0)
VCE=-150V
- 50
JlA
lEBO
Emitter Cutoff Current (Ic = 0)
V EB = - 4 V
- 20
JlA
V(BR)CEO
VCE(Sa') VBE hFE
. .
fr CCBO
.
.
Collector-emitter Breakdown Voltage (IB = 0)
418
- 200
Ic = -- 2 mA
V
Collector-emitter Saturation Voltage
Ic = - 50 mA
IB =- 5 mA
- 2.5
V
Base-Emitter Voltage
Ic =-50 mA
VCE=-10V
- 1.5
V
DC Current Gain
Ic =- 50 mA
VCE=-10V
Transition Frequency
Ic = - 10 mA f = 5 MHz
VCE=-10V
IE = 0 f = 1 MHz
VCB=-10V
Collector-base Capacitance
• Pulsed: pulse duration = 300 fls. duty cycle
2/2
Min.
=
1 %.
30
150
15
MHz
15
pF
PACKAGES
419
I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I
PACKAGE TO·72
MECHANICAL DATA
DIMENSIONS mm
A B
inches
min
max
-
5.3
-
12.7
min'
max 0.208
-
0.500
C
-
5.8
-
0.228
D
-
4.9
-
0.193
E G
1.16 0.49
0.045 0.019
H
typo 45°
typ.45°
L
typ.2.54
typ.0.100
pin 1: EMITIER - pin 2: BASE pin 3: COLLECTOR - pin 4: SHIELD
421
PACKAGES TO-39
,,#J MECHANICAL OAT A
DIMENSIONS
inches
mm min
max
min
A
-
6.6
-
B C D E
12.7
F G H L
-
-
-
9.4 8.5 0.9 1.2 0.49
45° typ 5.08 typ
0.500
max 0.260
-
-
0.370 0.334 0.035 0.047 0.019 45° typ 0.200 typ
pin 1: Emitter - pin 2: Base - pin 3: Collector
422
PACKAGE TO-18
MECHANICAL DATA
DIMENSIONS mm
inches
min
max
min
A
-
max.
5.3
-
0.208
B
12.7
-
0.500
-
C
-
5.8
-
0.228
D
-
4.9
-
0.193
1.16
-
0.045
0.49
-
E G
0.019
H
typ.45°
typ.45°
L
typ.2.54
typo 0.100
pin 1: Emitter - pin 2: Base - pin 3: Collector
423
PACKAGES SOT-32
. " MINIATURE PACKAGE WITH REVERSED TO-220 PINOUT
,
1 2
3
MECHANICAL OAT A
DIMENSIONS mm min A
B C
D E F G
H M P(-0304/1
L M N
P
inches max
7.8 10.8 2.7 0.9 2.2 typo 0.49 0.75 4.4 typo 2.54 typo 15.7 typo 1.2 typo 3.8 typo 3.0 3.2
7A 10.5 2.4 0.7
min 0.295 0.413 0.094 0.027 0.087 0.019 0.173 0.100 0.618 0.047 0.149 0.118
max 0.307 0.425 0.106 0.035 typo 0.029 typo typo typo typo typo 0.126
pin 1: Emitter - pin 2: Collector - pin 3: Base
*: WITHIN THIS REGION THE CROSS-SECTION OF THE LEADS IS UNCONTROLLED
424
PACKAGE SOT-23
MECHANICAL DATA
DIMENSIONS
inches
mm
p
I----B----I
PC-0300
min
max
min
max
A
0.93
1.04
0.036
0.041
B
2.8
3
0.110
0.118
C
1.2
1.4
0.047
0.055
D
2.1
2.5
0.082
0.098
E
1.9
2.05
0.074
0.080
F
0.95
1.05
0.037
0.041
G
0.45
0.60
0.017
0.023
H
0.15
-
0.006
-
L
0.065
0.115
0.003
0.004
M
0.013
0.1
0.0005
0.004
N
0.06
-
0.003
P
0.45
0.6
0.017
0.023
R
0.37
0.46
0.014
0.018
-
pin 1: Emitter - pin 2: Base - pin 3: Collector .
425
NOTES
NOTES
NOTES
NOTES
SALES OFFICES
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