NJSEMI MD7003AF Multiple silicon annular transistor Datasheet

it Una.
20 STERN AVE.
SPRINGFIELD, NEW JERSEY 07081
TELEPHONE: (973) 376-2922
(212)227-6005
FAX: (973) 376-8960
MD7003, F
MD7003A, AF
MD7003B
MQ7003
PNP SILICON
DUAL TRANSISTORS
MULTIPLE SILICON ANNULAR TRANSISTORS
. . .designed for use as high-gain, low-noise differential amplifiers,
front end detectors, and temperature compensation applications.
•
Low Collector-Emitter Saturation Voltage -
•
DC Current Gain Specified €> 1 00 /iAdc and 1 0 mAdc
•
High Current-Gain-Bandwidth Product -
MD700&A*
VcE(sat) • °'25 Vdc (Typ) ®> Ic = 10 mAdc
•asp 11 i
fr • 300 MHz (Tvp) @ Ic = 5.0 mAdc
J-o
1
1 Ufa i .UHEltl
DIM.
\f
MAXIMUM RATINGS
>
3!
T~-f
Sl
m
» <t
»W
;; "1
IL-12S-
Collector-Emitter Voltaga
Collector-Bale VolUga
VCB
Emitter-Bate Voltage
V6B
Collector Currant - Continuoui
"D
Total Power Oitlipation S T c - 25°C
MO 7003, A .8
MO70O3F.AF
MQ70O3
Dlrata above 25°C
MD70O3.A.B
MO7003F.AF
MQ7003
Operating and Storaga Junction
Temperature Range
"•o
Vdc
rvtn
M 1 CBUICtOft
] IAH
1 EHITTfl
1 UM
mAdc
One Die
AIIDia
Equal Powar
550
350
400
600
400
600
314
2.0
2.28
3.42
2.26
3.42
14
0.7
07
J.O
1.4
2.8
8.0
40
4.0
11.4
K
N
CASE BE407
H-- J;L
s:
ii H,
n.s«ir II r r.H«c . m no >sc
«.«*
0.0»
MD700W Af
& :^3
-c
cpaqft
&
Watti
S. IK ETtM
DID Ti
•M
A
1
(41
c
D
mW/°C
Tj.T,,9
i
0.2O
f
Vdc
5.0
50
>c
Total Powar Oinipation S> TA - 25°C
MD7003.A.B
MD7003F.AF
MO7003
Derate above 25ac
M07003.A.B
MD7003F.AF
MO7003
Vdc
40
50
VcEQ
laaf-Urt
rTHAT THST MAX
cai.uct4R
°C
"t.H
O.li
o.ooi
r, esc
N
15 BSC
ur
CASE 6iOt-Q3
r
MAX
0.290
a
H
16
-65 to »200
1!
MIN
0.240
Q.I IS
0,030
7U
-i
3.019
s»s
OHO BSC
| 0.03J
1.17
>•
l.l&o
into
o.: r~T53
4.41' an u
o.:
S
. F. HJ 1
COLLICTf}*
a.o
(.10
i.!i
-
1 ^M
MQ7003
THERMAL CHARACTERISTICS
All On
Character into
Symbol
Thermal Retiftance, Junction to Awv&ien1
MO7003,A,B
MD7003F.AF
MQ7003
R0JA*1*
Tharmal Railitanca. Junction to Case
MD70O3.A.B
MO7003F.AF
MQ7003
Coupling Factor
MD7003.A.B
MO7003F.AF
MQ70O3 IQ1-Q2)
iai-Q3or Q1-O4)
One Die
319
500
438
Eogial Powar
292
438
292
Unit
°C/W
125
250
250
87.5
125
626
Junction to
Ambient
Junction to
83
75
57
56
Can
40
0
0
0
5**^
TTt_.JlL.-^[-
MM ruH '
°c/w
RDJC
„ S
1 CUM
MAK
8«
A
f
1.05
MOT CD MCUD
,
ass s;
II tWTT
U IAB
CASt 607 W
~H:
B
«
1
"TTTs"
7IC
0.
INCHES
1 JL MAI
U2S.
i, n
I SB"
"fear
M
0. ft
_ iH
f-k- JLB__^_
tL _-—
OJI
-f *
-
; «L
5i_
j IT
iJJi.
- irST
i 1 7,1n 1 ill P3M
LJS.
1
11' HSJA '* maasiired with th» davica loidared into a typical printed circuit board.
NJ^^Semi-Conductors reserves the nght to change test conditions, parameter limits and package dimensions without
notice. lnrormat,on turmshecI b> NJ Sem.-Conductors is believed to be both accurate and reliable at the time of going
to press. However, NJ Semi-Conductors assumes no responsibility for any errors or omissions discovered in its use
\\s encourages customers to verity that datasheets nre current before placing orders.
Ounlih/
MD7003,A,AF,B,F. MQ7003 (continued)
THERMAL COUPLING AND EFFECTIVE THERMAL RESISTANCE
In multiple chip devices, coupling of htit between die occurs.
Assuming equal thermal resilience for each die, equation 11}
The junction temper iturs can bt calculated n fellovn:
simplifies to
R«3*«3 P 03
+ R»4 K«4 PD4
Where ATj 1 is the change in junction tempereture of die 1
R»1 thru 4 is the thermal resistance of die 1 through 4
PD1 thru 4 is the power dissipation in die 1 through 4
K02 thru 4 is the thermal coupling between die 1 and
die 2 through 4.
An effective package thermal resistence can be defined
follows:
Where:
- is the total package powtr dissipation.
R s 1 (PD,
For the conditions where PDI • P 02 " PO3 " PD4> PDT " ^O
equation 13) can be further simplified and by substituting into
equation (2) results in
< 4 I R 9 ( E F F ) - R « 1 (1 *K«2+K|l3
Volues for the coupling factors when either the case or the
ambient is used as a reference are given in the table on page 1. If
significent power is to be diuipated in two die. die at the opposite
ends of the package should be uMd so that lowest possible junction
temperatures will result.
ELECTRICAL CHARACTERISTICS ITA * 2S°C unless otherwise noted.)
L
Characteristic
I Symbol
|
Min
Typ
\x
gnit
Collector-Emitter Breakdown Voltage ID
(l c - lOwAdc. I B - 0)
BVCEO
40
-
-
Vdc
Collector. Biu Breakdown Voltega
dC" lOfiAdc.lg- 0)
BVCBO
SO
-
-
Vdc
Emitter-Bese Breakdown Voltage
(IE- 10wAdc,l c - 0)
6V EB 0
5.0
-
-
Vdc
! CBO
-
-
100
nAdc
40
50
350
350
-
_
025
0.3S
Vdc
0.6
1.0
Vdc
300
_
MHz
3.0
e.o
PF
pF
Collector Cutoff Current
(VCB - 30 Vdc, If - 0)
ON CHARACTERISTICS
DC Current Gain (1)
(l c - 100/iAdc. V c £ - lOVdcl
(1C- lOmAdc, VCE- lOVdcl
Collector-Emitter Saturation Voltage
(IQ- lOmAdc, Ig- LOmAdc)
Beet-Emitter Seturation Voltage
(1C* 10mAdc, Ig- LOmAdc)
"FE
VcE(sat)
vBE(iet)
_
_
DYNAMIC CHARACTERISTICS
Current-Gein— Bandwidth Product
<IC- B.OmAdc, Vcfi- 20 Vdc, f - 100MHz)
Output Capacitance
(VCB- 10 vdc,i e - o,f • 100 kHz)
'T
C0b
200
_
Input Capacitance
1 V 8 g - 2.0 Vdc, lc - 0, f - 1 00 kHz)
Clb
-
2.0
8.0
Noise Figure
llC - '00 MAdc, VCE -10 Vdc, R s - 3.0 k Ohms,
1 • 10 Hi to 15.7 kHz)
NF
_
2.0
_
DC Current Gain Ratio (2)
MD7003A.AF
IIC-IOOpAdc, V C E - 10 Vdc) M07003B
I>FE1"1FE2
0.76
0.85
_
1.0
1.0
-
Base-Emitter Voltage Differential
MD7CW3A.AF
(1C- 100 nAdc, VCE* lOVdcl MD7003B
VBEI-VBEZ!
25
16
mV
dB
MATCHING CHARACTERISTICS
(1) Pulse Test: Pulse Width < 300 us. Duty Cycle < 2.0%.
(2) The lowest HPE reeding is tekan "hpEl for this ratio.
~
-
\ CHARACTERISTICS
Similar pages