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2N2904A

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S G S - T H O M S O N 2 N 2 904 A - 2 N 2 9 0 5 A

2 N 2 9 0 6 A - 2 N 2 907 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 2N2907A) metal cases.

They are designed for high-speed saturated swit­

ching and general purpose applications.

2N2904A/2N2905A approved to CECC 50002-100. 2N2906A2N2907A approved to CECC 50002-103 available on request.

ABSOLUTE MAXIMUM RATINGS

S ym bo l P a r a m e t e r V al ue Unit

V c B O Collector-base Voltage ( Ie = 0 ) - 60 V

o

o>

Collector-emitter Voltage (Ib = 0) - 60 V

Ve b o Emitter-base Voltage (lc = 0) - 5 V

l c Collector Current - 600 m A

P - O . Total Power Dissipation at T amb < 25 C

for 2 N 2 9 0 4 A and 2 N 2 9 0 5 A 0.6 w

for 2 N 2 9 0 6 A and 2 N 2 9 0 7 A 0.4 w

3t Tc a s e — 25 C

for 2 N 2 9 0 4 A and 2 N 2 9 0 5 A 3 w

for 2 N 2 9 0 6 A and 2 N 2 9 0 7 A 1.8 w

T s . g • T, Storage and Junction Temperature - 65 to 200 C

January 1989 1/4

(2)

2 N 2 904A -2N 2905A-2N 2906A -2N 2907A

THERMAL DATA

2 N 2 9 0 4 A 2 N 2 9 0 5 A

2 N 2 9 0 6 A 2 N 2 9 0 7 A

^th j-case R|h j-amb

Thermal Resistance Junction-case Max

Thermal Resistance Junction-ambient Max

58.3 :C W 292 =C/W

97.3 :C W 437.5 C W

ELECTRICAL CHARACTERISTICS (Tamb = 25 "C unless otherwise specified)

S ym bo l P a r a m e t e r T e s t C o n d it io n s Min. Typ. Max. Unit

ICBO Collector Cutoff VCB = - 50 V - 10 nA

Current (lE = 0) VCB = - 50 V 1" a m b = 1 50 C - 10 ftA Ice x Collector Cutoff

Current (VBE = 0.5 V) VCE = - 30 V - 50 nA

Ibex Base Cutoff Current

(VBE =0.5 V) VCE = - 30 V - 50 nA

V|BR) CBO Collector-base Breakdown

Voltage (lE =0) lc = - 10 uA - 60

f * V|BR| CEO* Collector-emitter Breakdown

Voltage (I b= 0) lc = - 10 mA - 60 V

V(BR| EBO Emitter-base Breakdown

Voltage (lc = 0) l E = - 1 0 uA - 5 V

VcE ( s a t ) * Collector-emitter lc = - 150 mA Ib— 15 mA - 0.4 V

Saturation Voltage lc = - 500 mA Ib= - 50 mA - 1.6 V

VbE (sat)* Base-emitter lc = - 150 mA Ib = - 16 mA - 1.3 V

Saturation Voltage lc = - 500 mA Ib= - 50 mA - 2.6 v

hFE* DC Current Gain for 2 N 2 9 0 4 A and 2 N 2 9 0 6 A lc = - 0.1 mA VCE = - 10 V 40 lc = - 1 mA VCE = - 10 V 40 lc = - 10 mA VCE = - 10 V 40

lc = - 150 mA VCE = - 10 V 40 120 lc = - 500 mA VCE = - 10 V 40

hFE * DC Current Gain for 2 N 2 9 0 5 A and 2 N 2 9 0 7 A lc = - 0.1 mA VCE = - 10 V 75 lc = - 1 mA VCE = - 10 V 100 lc = - 10 mA VCE = - 10 V 100

lc — 150 mA VCE = - 10 V 100 300

lc = - 500 mA VCE = - 10 V 50 fT Transition Frequency lc = - 50 mA

f = 100 MHz VCE = - 20 V 200 MHz

Ce b o Emitter-base Capacitance lc = 0

f = 1 MHz VEB = - 2 V 30 PF

CcBO Collector-base Capacitance Ie =0

f = 1 MHz VCB = - 10 V 8 pF

td ** Delay Time lc = - 150 mA

lBi = - 15 mA Vcc = - 30 V 10 ns

t r ** Rise Time lc = - 150 mA

Ib' = - 15 mA Vcc = - 30 V 40 ns

ts ** Storage Time lc = - 150 mA

IB1 = ~ IB2 = ~

Vcc = - 6 V

15 mA 80 ns

Pulsed : pulse duration = 300 ,us, duty cycle = 1.5 %.

** See test circuit.

2 /4 r z7 SCS-THOMSON

^ 7 # - . o :

(3)

2 N 2 90 4A -2N 2905A-2N 2906A -2N 2907A

ELECTRICAL CHARACTERISTICS (continued)

S ym bo l P a r a m e t e r T e s t C o n d it io n s Min. Typ. Max. Unit

ti " Fall Time lc = - 1 5 0 mA VCC = - 6 V

IB1 = — 1 b2 = ~ 15 mA 30 ns

ton Turn-on Time lc = - 1 5 0 m A 30 v

lei = - 15 mA cc 45 ns

toff Turn-off Time lc = - 150 mA Vcc = - 6 V

Ibi = - 1B2 = — 15 mA 100 ns

Pulsed : pulse duration = 300 us. duty cycle = 1.5 %.

** see test circuit.

Normalized DC Current Gain. Collector-emitter Saturation Voltage.

Collector-base and Emitter-base capacitances. Switching Characteristics.

0 - 4530

fZT SGS-THOMSON

^ 7 # .

3 /4

(4)

2 N 2 90 4A -2 N 2905A-2N 2906A -2N 2907A

Test Circuit for ton. tr, ta.

VCC = - 3 0 V

O

200 A

f- - - - O V 0 U T

IK A ^ o - i r~

vin

O - ? —

- 16 V I

200ns 50 A

S - 4 6 2 8

PULSE GENERATOR : tr< 2 .0 ms

Frequency = 150 Hz Z0 = 50 12

TO OSCILLOSCOPE : t- < 5.0 ns Zin> 10 M12

Test Circuit for toff, t0, tf.

vb b " ’ 5V Ucc= -6V

9 O

1

0 - i

-30V

1 K A

r IN O — t

200ns

1 K A

37 A

- O V0UT

50 A ▼ FD 100

S - 4 6 2 9

PULSE G EN E R A TO R : t < 2.0 ns

Frequency = 150 Hz Zc = 5012

TO OSCILLOSCOPE : t- < 5.0 ns Zn > 100 M12

4 /4 r ZT SGSTHOMSON

^ 7 # - -

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