FMP80N10T2 [FUJI]

Power Field-Effect Transistor, 80A I(D), 100V, 0.0128ohm, 1-Element, N-Channel, Silicon, Metal-oxide Semiconductor FET, TO-220AB, TO-220AB, 3 PIN;
FMP80N10T2
型号: FMP80N10T2
厂家: FUJI ELECTRIC    FUJI ELECTRIC
描述:

Power Field-Effect Transistor, 80A I(D), 100V, 0.0128ohm, 1-Element, N-Channel, Silicon, Metal-oxide Semiconductor FET, TO-220AB, TO-220AB, 3 PIN

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SPECIFICATION  
Device Name  
Type Name  
Spec. No.  
Date  
:
:
:
:
Power MOSFET  
FMP80N10T2  
MS5F6116  
Jun.-17-2005  
NAME  
APPROVED  
DATE  
Fuji Electric Device Technology Co.,Ltd.  
DRAWN  
Jun.-17-'05  
Jun.-17-'05  
a
CHECKED  
MS5F6116  
1 / 19  
CHECKED Jun.-17-'05  
H04-004-05  
Revised Records  
Date  
Classification  
enactment  
Index  
Content  
Drawn Checked Checked  
Approved  
Jun.-17  
2005  
Revised characteristics  
curve.  
Feb.-22  
2006  
revise  
a
Added to repetitive  
avalanche current.  
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1.Scope  
This specifies Fuji Power MOSFET FMP80N10T2  
N-Channel enhancement mode power MOSFET  
for Switching  
2.Construction  
3.Applications  
4.Outview  
TO-220  
Outview See to 8/19 page  
5.Absolute Maximum Ratings at Tc=25 C (unless otherwise specified)  
Description  
Symbol  
VDS  
VDSX  
ID  
Characteristics  
Unit  
V
Remarks  
100  
60  
Drain-Source Voltage  
V
VGS=-20V  
80  
Continuous Drain Current  
Pulsed Drain Current  
Gate-Source Voltage  
A
IDP  
± 320  
+30/-20  
A
VGS  
V
Non-Repetitive  
Maximum Avalanche current  
Repetitive  
Maximum Avalanche current  
Non-Repetitive  
Maximum Avalanche Energy  
Repetitive  
IAS  
Note *1  
Note *1  
Note *2  
Note *3  
80  
40  
A
A
IAR  
EAS  
EAR  
728  
27  
mJ  
mJ  
Maximum Avalanche Energy  
dVDS/dt  
dV/dt  
20  
5
Maximum Drain-Source dV/dt  
Peak Diode Recovery dV/dt  
VDS100V  
kV/s  
kV/s  
Note *4  
270  
Tc=25°C  
Ta=25°C  
PD  
Maximum Power Dissipation  
W
2.02  
Tch  
Operating and Storage  
Temperature range  
150  
C  
Tstg  
-55 to +150  
C
6.Electrical Characteristics at Tc=25 C (unless otherwise specified)  
Static Ratings  
Description  
Drain-Source  
Symbol  
Conditions  
min.  
100  
typ.  
-
max.  
-
Unit  
ID=250 A  
BV  
VGS=0V  
Breakdown Voltage  
Gate Threshold  
Voltage  
V
V
DSS  
ID=250 A  
V
I
GS(th)  
VDS=VGS  
VDS=100V  
VGS=0V  
2.0  
-
-
-
4.0  
25  
Tch=25C  
Zero Gate Voltage  
Drain Current  
A
A
VDS=80V  
VGS=0V  
Tch=125C  
-
-
250  
DSS  
VGS= +30V / -20V  
VDS=0V  
Gate-Source  
I
Leakage Current  
Drain-Source  
-
-
-
100  
nA  
GSS  
ID=40A  
R
DS(on) VGS=10V  
On-State Resistance  
10.0  
12.8  
m  
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Dynamic Ratings  
Description  
Symbol  
Conditions  
ID=40A  
min.  
typ.  
max.  
Unit  
S
Forward  
g
VDS=25V  
VDS=25V  
VGS=0V  
f=1MHz  
Transconductance  
15  
-
30  
6000  
740  
370  
-
fs  
Input Capacitance  
Output Capacitance  
Reverse Transfer  
Ciss  
9000  
1110  
555  
Coss  
-
pF  
Capacitance Crss  
td(on)  
-
-
-
-
-
-
-
-
Vcc=48V  
VGS=10V  
ID=40A  
33  
44  
49.5  
66  
Turn-On Time  
tr  
td(off)  
tf  
120  
60  
180  
90  
ns  
RGS=10  
Vcc=48V  
ID=80A  
Turn-Off Time  
QG  
Total Gate Charge  
Gate-Source Charge  
Gate-Drain Charge  
120  
30  
180  
45  
QGS  
QGD  
nC  
VGS=10V  
34  
51  
Reverse Diode  
Description  
Symbol  
Conditions  
min.  
typ.  
1.00  
120  
0.52  
max.  
Unit  
V
IF=80A  
VGS=0V  
IF=80A  
VGS=0V  
Diode Forward  
On-Voltage  
V
Tch=25C  
-
-
-
1.50  
SD  
Reverse Recovery  
Time trr  
Reverse Recovery  
Charge Qrr  
-
-
ns  
-di/dt=100A/ s  
Tch=25C  
C
7.Thermal Resistance  
Description  
Symbol  
min.  
typ.  
max.  
0.463  
62  
Unit  
C/W  
C/W  
Channel to Case  
Channel to Ambient  
Rth(ch-c)  
Rth(ch-a)  
Note *1 : Tch 150°C, See Fig.1 and Fig.2  
Note *2 : Starting Tch=25 C,IAS=32A,L=853 H,Vcc=48V,RG=50Ω,See Fig.1 and Fig.2  
EAS limited by maximum channel temperature and avalanche current.  
See to the 'Avalanche Energy' graph of page 17/19.  
Note *3 : Repetitive rating : Pulse width limited by maximum channel temperature.  
See to the 'Maximum Transient Thermal impedance' graph of page 19/19.  
Note *4 : IF-ID,-di/dt=50A/s,VccBVDSS,Tch150C  
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Fig.1 Test circuit  
L
50Ω  
D.U.T  
L=853uH  
Vcc=48V  
Single Pulse Test  
Vcc  
Fig.2 Operating waveforms  
+10V  
VGS  
-15V  
BVDSS  
IDP  
VDS  
0
ID  
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8.Reliability test items  
All guaranteed values are under the categories of reliability per non-assembled(only MOSFETs).  
Each categories under the guaranteed reliability conform to EIAJ ED4701/100 method104  
standards.  
Test items required without fail  
Humidification treatment (85±2°C,65±5%RH,168±24hr)  
Heat treatment of soldering (Solder Dipping,260±5°C(265°Cmax.),10±1sec,2 times)  
Test Test  
Testing methods and Conditions  
Reference  
Standard  
Sampling Acceptance  
number number  
No.  
Items  
1 Terminal  
Strength  
Pull force  
TO-220,TO-220F : 10N  
TO-3P,TO-3PF,TO-247 : 25N  
TO-3PL : 45N  
EIAJ  
(Tensile)  
ED4701/400  
method 401  
15  
15  
T-Pack,K-Pack : 10N  
Force maintaining duration :30±5sec  
Load force  
2 Terminal  
Strength  
TO-220,TO-220F : 5N  
EIAJ  
(Bending)  
TO-3P,TO-3PF,TO-247 : 10N  
TO-3PL : 15N  
ED4701/400  
method 401  
T-Pack,K-Pack : 5N  
Number of times :2times(90deg./time)  
Screwing torque value: (M3)  
TO-220,TO-220F : 40±10Ncm  
TO-3P,TO-3PF,TO-247 : 50±10Ncm  
TO-3PL : 70±10Ncm  
3 Mounting  
Strength  
EIAJ  
(0:1)  
ED4701/400  
method 402  
15  
15  
15  
15  
15  
4 Vibration  
frequency : 100Hz to 2kHz  
Acceleration : 200m/s2  
Sweeping time : 4min.  
EIAJ  
ED4701/400  
method 403  
48min. for each X,Y&Z directions.  
Peak amplitude: 15km/s2  
Duration time : 0.5ms  
5 Shock  
EIAJ  
ED4701/400  
method 404  
3times for each X,Y&Z directions.  
   
Solder temp. : 235 5 C  
6 Solderability  
Immersion time : 5 0.5sec  
EIAJ  
Each terminal shall be immersed in  
ED4701/300  
the solder bath within 1 to 1.5mm from method 303  
the body.  
   
Solder temp. : 260 5 C  
7 Resistance to  
EIAJ  
Soldering Heat Immersion time : 10 1sec  
ED4701/300  
method 302  
Number of times : 1times  
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Test Test  
Testing methods and Conditions  
Reference  
Standard  
Sampling Acceptance  
number number  
No.  
Items  
1 High Temp.  
Storage  
Temperature : 150+0/-5°C  
Test duration : 1000hr  
EIAJ  
22  
22  
ED4701/200  
method 201  
EIAJ  
2 Low Temp.  
Storage  
Temperature : -55+5/-0°C  
Test duration : 1000hr  
ED4701/200  
method 202  
EIAJ  
3 Temperature  
Humidity  
Temperature : 85±2°C  
Relative humidity : 85±5%  
Test duration : 1000hr  
ED4701/100  
method 103  
EIAJ  
22  
22  
Storage  
4 Temperature  
Humidity  
Temperature : 85±2°C  
Relative humidity : 85±5%  
Bias Voltage : VDS(max) * 0.8  
ED4701/100  
method 103  
BIAS  
Test duration : 1000hr  
Temperature : 130±2°C  
Relative humidity : 85±5%  
Vapor pressure : 230kPa  
Test duration : 48hr  
(0:1)  
5 Unsaturated  
Pressurized  
Vapor  
EIAJ  
ED4701/100  
method 103  
22  
22  
22  
6 Temperature  
Cycle  
   
High temp.side : 150 5 C/30min.  
   
Low temp.side : -55 5 C/30min.  
EIAJ  
ED4701/100  
method 105  
RT : 5°C  
Number of cycles : 100cycles  
7 Thermal Shock Fluid : pure water(running water)  
35°C/5min.  
High temp.side : 100+0/-5 C  
EIAJ  
Low temp.side : 0+5/-0 C  
ED4701/300  
method 307  
Duration time : HT 5min,LT 5min  
Number of cycles : 100cycles  
8 Intermittent  
Operating  
Life  
Tc=90degree  
EIAJ  
TchTch(max.)  
ED4701/100  
method 106  
EIAJ  
22  
22  
Test duration : 3000 cycle  
Temperature : Tch=150+0/-5°C  
Bias Voltage : +VGS(max)  
9 HTRB  
(0:1)  
(Gate-source)  
ED4701/100  
Test duration : 1000hr  
method 101  
EIAJ  
10 HTRB  
Temperature : Tch=150+0/-5°C  
(Drain-Source) Bias Voltage : VDS(max)*1.0  
Test duration : 1000hr  
ED4701/100  
22  
method 101  
Failure Criteria  
Symbols  
Failure Criteria  
Unit  
Item  
Breakdown Voltage  
Lower Limit  
LSL * 1.0  
-----  
Upper Limit  
-----  
BVDSS  
IDSS  
V
Zero gate Voltage Drain-Source Current  
Gate-Source Leakage Current  
Gate Threshold Voltage  
Drain-Source on-state Resistance  
Forward Transconductance  
Diode forward on-Voltage  
Marking  
USL * 2  
USL * 2  
USL * 1.2  
USL * 1.2  
-----  
A
A
V
S
V
IGSS  
-----  
VGS(th)  
RDS(on)  
gfs  
LSL * 0.8  
-----  
LSL * 0.8  
-----  
VSD  
USL * 1.2  
Soldering  
-----  
With eyes or Microscope  
-----  
and other damages  
* LSL : Lower Specification Limit  
* USL : Upper Specification Limit  
* Before any of electrical characteristics measure, all testing related to the humidity  
have conducted after drying the package surface for more than an hour at 150°C.  
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9. Cautions  
Although Fuji Electric is continually improving product quality and reliability, a small percentage of  
semiconductor productsmay become faulty. When using Fuji Electric semiconductor products in your  
equipment, you are requested to take adequate safety measures to prevent the equipment from causing  
physicalinjury, fire, or other problem in case anyof the products fail. It is recommended to make your design  
fail-safe, flame retardant, and free of malfunction.  
The productsdescribed in this Specification are intended for use in the following electronic and electrical  
equipment which has normal reliability requirements.  
Computers  
OAequipment  
AV equipment  
Communications equipment(Terminal devices)  
Measurement equipment  
Machine tools  
Personal equipment Industrial robots  
Electrical home appliances etc.  
The productsdescribed in this Specification are not designed or manufactured to be used in equipment or  
systems used under life-threatening situations. If you are considering using these products in the equipment  
listed below, first check the system construction and required reliability, and take adequate safetymeasures  
such as a backup system to prevent the equipment from malfunctioning.  
Backbone network equipment  
Traffic-signal control equipment  
Submarine repeater equipment  
Medical equipment  
Transportation equipment (automobiles, trains, ships, etc.)  
Gas alarms, leakage gas auto breakers  
Burglar alarms, fire alarms,emergencyequipment  
Nuclear controlequipment etc.  
Do not use the products in this Specification for equipment requiring strict reliability such as(but not limited  
to):  
Aerospace equipment  
Aeronautical equipment  
10. Warnings  
The MOSFETs should be used in products within their absolute maximum rating(voltage, current,  
temperature, etc.).  
The MOSFETs maybe destroyed if used beyond the rating.  
We only guarantee the non-repetitive and repetitiveAvalanche capability and not for the continuous  
Avalanche capability which can be assumed asabnormalcondition .Please note the device maybe  
destructed from theAvalanche over the specified maximum rating.  
The equipment containing MOSFETs should have adequate fuses or circuit breakers to prevent the  
equipment from causing secondary destruction (ex. fire, explosion etc).  
Use the MOSFETs within their reliability and lifetime under certain environments or conditions. The  
MOSFETs may fail before the target lifetime of your products if used under certain reliability conditions.  
Be careful when handling MOSFETs for ESD damage. (Itis an important consideration.)  
When handling MOSFETs, hold them by the case (package) and don’t touch the leadsand terminals.  
It is recommended that any handling of MOSFETs is done on grounded electricallyconductive floor and  
tablemats.  
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Before touching a MOSFET terminal, Discharge any static electricity from your body and clothes  
by grounding out through a high impedance resistor (about 1M)  
When soldering, in order to protect the MOSFETs from static electricity, ground the soldering iron  
or soldering bath through a low impedance resistor.  
You must design the MOSFETs to be operated within the specified maximum ratings(voltage,  
current, temperature, etc.) to prevent possible failure or destruction of devices.  
Consider the possible temperature rise not only for the channel and case, but also for the outer  
leads.  
Do not directly touch the leads or package of the MOSFETs while power is supplied or during  
operation in order to avoid electric shock and burns.  
The MOSFETs are made of incombustible material. However, if a MOSFET fails, it may emit  
smoke or flame. Also, operating the MOSFETs near any flammable place or material may cause  
the MOSFETs to emit smoke or flame in case the MOSFETs become even hotter during  
operation. Design the arrangement to prevent the spread of fire.  
The MOSFETs should not used in an environment in the presence of acid, organic matter, or  
corrosive gas(hydrogen sulfide, sulfurous acid gas etc.)  
The MOSFETs should not used in an irradiated environment since they are not radiation-proof.  
Installation  
Soldering involves temperatures which exceed the device storage temperature rating. To avoid  
device damage and to ensure reliability, observe the following guidelines from the quality  
assurance standard.  
Solder temperature and duration (through-hole package)  
Solder temperature  
2605 C  
Duration  
101 seconds  
3.50.5 seconds  
35010 C  
The immersion depth of the lead should basically be up to the lead stopper and the distance should  
be a maximum of 1.5mm from the device.  
When flow-soldering, be careful to avoid immersing the package in the solder bath.  
Recommended soldering condition  
Methods  
Categories  
Packages  
Wave  
Wave  
Infrared  
Reflow  
Air  
Soldering  
Soldering  
Soldering  
Reflow  
iron  
(Full dipping) (Only terminal)  
(Re-work)  
Through-Hole  
TO-3PL  
TO-3P  
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
×
TO-247  
TO-3PF  
TO-220  
TO-220F  
T-Pack(L)  
TO-3PL-7  
◎:Possible  
Limited to 1 time  
×:Unable  
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Refer to the following torque reference when mounting the device on a heat sink. Excess torque  
applied to the mounting screw causes damage to the device and weak torque will increase the  
thermal resistance, both of which conditions may destroy the device.  
Table 1: Recommended tightening torques.  
Package style  
TO-220  
Screw  
M3  
Tightening torques  
Note  
30 50 Ncm  
TO-220F  
TO-3P  
flatness : < =±30m  
roughness : <=10m  
Plane off the edges :  
C<=1.0mm  
TO-3PF  
TO-247  
M3  
M3  
40 60 Ncm  
60 80 Ncm  
TO-3PL  
The heat sink should have a flatness within±30μm and roughness within 10μm. Also,keep the tightening  
torque within the limits of this specification.  
Improper handlingmay cause isolation breakdown leading to a critical accident.  
ex.) Over plane off the edges of screw hole. (Recommended plane off the edge is C<1.0mm)  
We recommend the use of thermal compound to optimize the efficiency of heat radiation. It is important to  
evenly applythe compound and to eliminate anyair voids.  
Storage  
The MOSFETs must be stored at a standard temperature of 5 to 35C and relative humidity of 45 to 75%.  
If the storage area is very dry,a humidifier maybe required.In such a case, use onlydeionized water or  
boiled water, since the chlorine in tap water may corrode the leads.  
The MOSFETs should not be subjected to rapid changes in temperature to avoid condensation on the  
surface of the MOSFETs. Therefore store the MOSFETs in a place where the temperature is steady.  
The MOSFETs should not be stored on top of each other, since this may cause excessive external force on  
the case.  
The MOSFETs should be stored with the lead terminals remaining unprocessed. Rust maycause  
presoldered connections to fail during later processing.  
The MOSFETs should be stored in antistatic containersor shipping bags.  
11.Appendix  
This products does not contain PBBs (Polybrominated Biphenyl) or PBDEs(Polybrominated Diphenyl  
Ether ) , substances.  
Thisproducts does not contain Class-I ODS and Class-II ODS substances set force by ‘Clean Air Act of US’  
law.  
If you have any questions about any partof this Specification,please contact Fuji  
Electric or its sales agent before using the product.  
Neither Fuji nor its agentsshall be held liable for any injury caused byusing the products  
not in accordance with the instructions.  
The application examples describedin this specification are merelytypical uses of Fuji  
Electric products.  
This specification does not confer anyindustrial propertyrights or other rights, nor  
constitute a license for such rights.  
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Allowable Power Dissipation  
PD=f(Tc)  
300  
250  
200  
150  
100  
50  
0
0
25  
50  
75  
100  
125  
150  
Tc [C]  
Typical Output Characteristics  
ID=f(VDS):80 s pulse test,Tch=25 C  
140  
120  
100  
80  
10V  
6V  
20V  
5V  
60  
4.5V  
40  
20  
VGS=4.0V  
0
0
2
4
6
8
10  
VDS [V]  
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Typical Transfer Characteristic  
ID=f(VGS):80 s pulse test,VDS=25V,Tch=25 C  
100  
10  
1
0.1  
0
1
2
3
4
5
VGS[V]  
Typical Transconductance  
gfs=f(ID):80 s pulse test,VDS=25V,Tch=25 C  
100  
10  
1
0.1  
0.1  
1
10  
100  
ID [A]  
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Typical Drain-Source on-state Resistance  
RDS(on)=f(ID):80 s pulse test,Tch=25 C  
0.04  
0.03  
0.02  
0.01  
0.00  
VGS=4V  
4.5V  
5V  
10V  
20V  
6V  
0
10 20 30 40 50 60 70 80 90 100 110 120  
ID [A]  
Drain-Source On-state Resistance  
RDS(on)=f(Tch):ID=40A,VGS=10V  
0.04  
0.03  
0.02  
0.01  
0.00  
max.  
typ.  
-50  
-25  
0
25  
50  
75  
100  
125  
150  
Tch [C]  
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Gate Threshold Voltage vs. Tch  
VGS(th)=f(Tch):VDS=VGS,ID=250A  
6.0  
5.5  
5.0  
4.5  
4.0  
3.5  
3.0  
2.5  
2.0  
1.5  
1.0  
0.5  
0.0  
max.  
min.  
-50  
-25  
0
25  
50  
75  
100  
125  
150  
Tch [C]  
Typical Gate Charge Characteristics  
VGS=f(Qg):ID=80A,Tch=25 C  
14  
12  
10  
8
Vcc= 36V  
48V  
72V  
6
4
2
0
0
50  
100  
150  
200  
Qg [nC]  
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Typical Capacitance  
C=f(VDS):VGS=0V,f=1MHz  
105  
104  
103  
102  
101  
Ciss  
Coss  
Crss  
10-1  
100  
101  
102  
103  
VDS [V]  
Typical Forward Characteristics of Reverse Diode  
IF=f(VSD):80 s pulse test,Tch=25 C  
1000  
100  
10  
1
0.1  
0.0  
0.5  
1.0  
1.5  
VSD [V]  
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Typical Switching Characteristics vs. ID  
t=f(ID):Vcc=48V,VGS=10V,RG=10   
103  
102  
101  
100  
td(off)  
tf  
td(on)  
tr  
10-1  
100  
101  
102  
103  
ID [A]  
Maximum Avalanche Energy vs. starting Tch  
I(AV)=f(starting Tch):Vcc=48V  
100  
80  
60  
40  
20  
0
Non-Repetitive  
(Single Pulse)  
Repetitive  
0
25  
50  
75  
100  
125  
150  
175  
200  
starting Tch [C]  
a
FujiElectricDeviceTechnologyCo.,Ltd.  
MS5F6116  
17 / 19  
H04-004-03  
Maximum Avalanche Energy vs. starting Tch  
E(AV)=f(starting Tch):Vcc=48V,I(AV)<=80A  
1000  
800  
600  
400  
200  
0
IAS=32A  
IAS=48A  
IAS=80A  
0
25  
50  
75  
100  
125  
150  
starting Tch [C]  
Maximum Avalanche Current Pulsewidth  
IAV=f(tAV):starting Tch=25 C,Vcc=48V  
102  
101  
100  
10-1  
10-2  
Single Pulse  
10-8  
10-7  
10-6  
10-5  
10-4  
10-3  
10-2  
tAV [sec]  
a
FujiElectricDeviceTechnologyCo.,Ltd.  
MS5F6116  
18 / 19  
H04-004-03  
Maximum Transient Thermal Impedance  
Zth(ch-c)=f(t):D=0  
101  
100  
10-1  
10-2  
10-3  
10-6  
10-5  
10-4  
10-3  
10-2  
10-1  
100  
t [sec]  
a
FujiElectricDeviceTechnologyCo.,Ltd.  
MS5F6116  
19 / 19  
H04-004-03  

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