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STM LK112M28TR Datasheet

9U9{250 TOSHIBA (DISCRETE/OPTO) 5bC 07589 D - 3 3- (J
2SC2706 - SILICON NPN EPITAXIAL TYPE (PCT PROCESS)
Unit in mm
\UDIO FREQUENCY POVIER AMPLIFIER APPLICATIONS. 159LfAY &2Ce2
PEATURES : . Complementary t0 2SA1146. l l -d E
. Recommended for 70W audio frequency amplifier outpu stage. I H i
. High transition frequency : fT=90MHz(Typ.) zo a3111.W J 1f] 11
±2l U) 3
vlAXIMUM RATINGS (Ta=250C) - l
CHARACTERISTIC SYMBOL RATING UNIT 45Q2 a45Q2 d
Collector-Base Volage VCBO 140 V dd j
Collector-Emitter Voltage Emitter-Base Voltage -- VCEO VEBO 140 5 V V +l t '
Colrlector Current IC 10 A -1. BASE Z. COLLECTOR (HEAT SINK)
Base Current IB l A S EbtITTER
Collector Power Dissipation Pc 100 w JEOEC
(Tc=250C) EAJ
Junction Temperature Tj 150 oC TOSHIBA 2-16BIA
Sorage Temperature Range Tst2 -55150 oc Weight : 4.6g
ELECTRICAL CHARACTERISTICS (Ta=250C)
CHARACTERISTIC SYMBOL TEST CONDITION MIN TYP MAX UNT
Collector Cut-off Current ICBO VCB=140V, IE-O 50 pA
Emitter Cut-off Current EB0 VEB=5V, IC=O 50 p,A
Collector-Emitter Breakdown Voltage V(BR)CEO IC=50mA, IB=O 140 V
DC Current Gain hFE (1) (Note) VCE=5V, IC=1A 55 240
hFE(2) VCE= 5V, IC= 5A 30
Collector-Emitter Saturation Voltage VCE (sat) IC=5A, IB=0.5A 2.0 V
Base-Emitter Voltage YBE VCE=5V, IC=5A 2.5 V
Transition Frequency fT VCE=10V, IC=1A 90 lfHz
Collector Output Capacitance Cob VCB=10V, IE=O. f=ll.lHz 130 pF
Noe: hFE Classification. R:55~110, 0:80-160, Y:120~240 TOBHlaA CORPORATlaNmu¨I¨¨¨¨¨¨¨IInumummimnmmi¨I¨¨uI¨¨¨¨¨¨llr - 520-


STM LK112M28TR Price

f=lMHz
Ta2 - 254(
1-h --- -


STM LK112M28TR on stock

Inverse diode continuous forward current s TA=25C -0.39 A
Inv. diode direct current, pulsed sM -1.56
Inverse diode forward voltage D VGS =0, /F=-0.39 -1 -1.33 V
Reverse recovery time VR =-1 0V. l,t I = l/D l. 7.6 9.5 ns
Reverse recovery charge Qrr diFldt=lOO/Vps 1.1 1.4 nC


In order to ensure data integrity, elspecially during criti- cal power-up and power-down transitions, the following enhanced data protection circuits are incorporated: First, an internal vcc detect (3.3 volts typical) will inhibit the initiation of non-volatile programming operation when Vcc is less than the Vcc detect circuit trip. Second, there is a WE filtering circuit that prevents WE pulses ofless than 10 ns duration from initiating a write cycle. Third, holding WE or CE high or OE low, inhibits a write cycle during power-on and power-off (vcc).