Type numbering system (Example : 35V 1.5µF)
Drawing
L W
H
Solder electrode electrode
Solder
ABC(D)
Resin
Single-side electrodes
(Both electrodes at bottom side only)
Taping code
(Refer to page 323 for details)
Single face electrode
F
19
25
31
4V
51
65
75
8M
9A
10 11 A
12 Q
13 2
14
Case code
Capacitance tolerance
Rated capacitance Rated voltage
Series
After applying the pressure load of 5N
for 10±1 seconds horizontally to the
center of capacitor side body which has
no electrode and has been soldered
beforehand on a substrate, there shall be
found neither exfoliation
nor its sign at the terminal electrode.
Refer to next page
Provided that
•After 1 minute's application of rated voltage, leakage current at 85
˚C,
10 times or less than 20˚C specified value.
•After 1 minute's application of rated voltage, leakage current at 125
˚C,
12.5 times or less than 20˚C specified value.
10 seconds reflow at 260˚C, 10 seconds immersion at 260˚C
+15% Max. (at +125
˚C
)
+10% Max. (at +85
˚C
)
--10% Max. (at --55
˚C
)
Damp Heat
(Steady State)
Temperature Cycles
At 40
˚C
, 90 to 95% R.H., For 500 hours (No voltage applied)
Capacitance Change ••••••
Refer to next page (
∗1
)
Dissipation Factor •••••••••• Initial specified value or less
Leakage Current •••••••••••• Initial specified value or less
At --55
˚C
/ +125
˚C
, 30 minutes each, For 5 cycles,
Capacitance Change ••••••
Refer to next page (
∗1
)
Dissipation Factor •••••••••• Initial specified value or less
Leakage Current •••••••••••• Initial specified value or less
Resistance to
Soldering Heat Capacitance Change ••••••
Refer to next page (
∗1
)
Dissipation Factor •••••••••• Initial specified value or less
Leakage Current •••••••••••• Initial specified value or less
Endurance∗
After 2000 hours' application of rated voltage at 85
˚C
,
capacitors meet the characteristic requirements listed below.
Capacitance Change ••••••
Refer to next page (
∗1
)
Dissipation Factor •••••••••• Initial specified value or less
Leakage Current •••••••••••• Initial specified value or less
Surge∗
After application of surge voltage in series with a 33
Ω
resistor at the rate of 30
seconds ON, 30 seconds OFF, for 1000 successive test cycles at 85
˚C
,
capacitors meet the characteristics requirements listed below.
Capacitance Change ••••••
Refer to next page (
∗1
)
Dissipation Factor •••••••••• Initial specified value or less
Leakage Current •••••••••••• Initial specified value or less
Shear Test
Terminal Strength
Keeping a capacitor surface-mounted on a substrate upside
down and supporting the substrate at both of the opposite
bottom points 45mm apart from the center of the capacitor,
the pressure strength is applied with
a specified jig at the center of the
substrate so that the substrate may
bend by 1mm as illustrated. Then,
there shall be found no remarkable
abnormality on the capacitor terminals.
5N (0.51kg • f)
For 10 ± 1 seconds
SOLID TANTALUM ELECTROLYTIC CAPACITORS
F95 Conformal coated
Chip
Specifications
Item
Category
Temperature Range
Capacitance Tolerance
Dissipation Factor
(at 120Hz)
Leakage Current
Capacitance Change
by Temperature
Performance Characteristics
--55 to +125
˚C
(Rated temperature : 85
˚C
)
±20%, ±10% (at 120Hz) (However P Case ±20%)
D dimension only for reference
( ) The series in parentheses are being developed.
Please contact to your local Nichicon sales office when
these series are being designed in your application.
Dimensions
Refer to next page
R230
45 45
20
1
mm
∗As for the surge voltage, refer to page 322 for details.
Standard Ratings
(mm)
Refer to next pageESR(100kHz)
Case code L
2.2 ± 0.3 1.25 ± 0.3 1.0 ± 0.2 0.6 ± 0.3 0.8 ± 0.3 0.8 ± 0.3
W H A B C ( D )
(0.2)
P2.2 ± 0.3 1.25 ± 0.3 0.65MAX. 0.6 ± 0.3 0.8 ± 0.3 0.5MIN (0.2)
R
3.2 ± 0.2 1.6 ± 0.2 0.8 ± 0.2 0.8 ± 0.2 1.2 ± 0.2 0.8 ± 0.2 (0.2)
Q3.2 ± 0.3 1.6 ± 0.3 1.0 ± 0.2 0.8 ± 0.3 1.2 ± 0.3 0.8 ± 0.3 (0.2)
S1.4 ± 0.2
1.0 ± 0.2 0.8 ± 0.3
0.8 ± 0.2 1.2 ± 0.3
1.2 ± 0.2 0.8 ± 0.3
1.1 ± 0.2
1.7 ± 0.3
2.7 ± 0.2
3.2 ± 0.3
3.5 ± 0.2 (0.2)
(0.2)
A
T1.8 ± 0.2 0.8 ± 0.3 1.2 ± 0.3 1.1 ± 0.32.8 ± 0.23.5 ± 0.2 (0.2)
B
Compliant to the RoHS directive (2002/95/EC).
1
1.5
2.2
3.3
4.7
6.8
10
15
22
33
47
68
100
150
220
330
470
680
105
155
225
335
475
685
106
156
226
336
476
686
107
157
227
337
477
687
P
P
P
(R) •P•Q•S•A
S•A
P•Q•S•A
P•B
(P)
•
Q
•
S
•
A
•
T
•
B
(P) •(S) •A•T•B
(P) •(A) •(T) •B
(T)
P
P
R•P
(R) •P•Q•S•A
P•Q•S•A
P•S•A
P
•
Q
•
S
•
A
•
T
•
B
B
(S) • (A) •(T) •B
B
(B)
P
P
P
R•P
P
P•Q•S•A
P•Q•S•A
(P)
•(
Q)
•
S
•
A
•
T
•
B
B
(S) •A•T•B
P
P
P
P
R•P
P•Q•S•A
S•A
Q•S•A•T•B
(A) •T•B
B
P•S
A
S•A
Q•A
S•A•B
B
P•S•A
A
(S) •A
(S) •(A) •B
(T) •B
4
0G 6.3
0J 10
1A 16
1C 20
1D 25
1E 35
1V
Cap.
(µF) Code V
R•P•S
S
R•P•S•A
A
P•Q•S•A
(Q) •(S)
A•(T) •B
Applications
Smartphone Wireless module
Tablet PC e-book
CAT.8100A
SOLID TANTALUM ELECTROLYTIC CAPACITORS
F95
Standard Ratings
In case of capacitance tolerance ±10% type, K will be put at 9th digit of type
numbering system.
*1 : ∆C/C Marked "∗"
I t e m P • Q • S • A • T • B Case (%)
Damp Heat ±10
Tempereature cycles ±5
Resistance soldering heat
±5
Surge ±5
Endurance ±10
3.3 P F951A335MPAAQ2 0.5 8 5.0 ∗
4.7 P F951A475MPAAQ2 0.5 8 4.0 ∗
6.8 P F951A685MPAAQ2 0.7 8 4.0 ∗
10 R F951A106MRAAQ2 1.0 18 3.0 ±20
10 P F951A106MPAAQ2 1.0 8 3.0 ∗
15 P F951A156MPAAQ2 1.5 10 3.0 ∗
22 P F951A226MPAAQ2 2.2 14 3.0 ∗
22 Q F951A226MQAAQ2 2.2 10 2.0 ∗
22 S F951A226MSAAQ2 2.2 10 1.1 ∗
22 A F951A226MAAAQ2 2.2 6 0.9 ∗
33 P F951A336MPAAQ2 3.3 20 3.0 ±15
33 Q F951A336MQAAQ2 3.3 18 3.0 ±15
33 S F951A336MSAAQ2 3.3 10 1.1 ∗
33 A F951A336MAAAQ2 3.3 10 0.8 ∗
47 S F951A476MSAAQ2 4.7 14 1.1 ±15
47 A F951A476MAAAQ2 4.7 10 0.8 ∗
47 T F951A476MTAAQ2 4.7 12 0.8 ∗
47 B F951A476MBAAQ2 4.7 8 0.4 ∗
10 P F950J106MPAAQ2 0.6 8 2.0 ∗
15 P F950J156MPAAQ2 0.9 10 1.8 ∗
22 R F950J226MRAAQ2 1.4 20 2.0 ±20
22 P F950J226MPAAQ2 1.4 14 1.1 ∗
33 P F950J336MPAAQ2 2.1 14 1.1 ∗
33 Q F950J336MQAAQ2 2.1 10 2.0 ∗
33 S F950J336MSAAQ2 2.1 10 1.0 ∗
33 A F950J336MAAAQ2 2.1 8 0.8 ∗
47 P F950J476MPAAQ2 3.0 20 1.1 ±15
47 Q F950J476MQAAQ2 3.0 10 1.1 ∗
47 S F950J476MSAAQ2 3.0 10 0.9 ∗
47 A F950J476MAAAQ2 3.0 10 0.6 ∗
68 P F950J686MPAAQ2 4.3 25 1.2 ±15
68 S F950J686MSAAQ2 4.3 14 0.9 ∗
68 A F950J686MAAAQ2 4.3 12 0.5 ∗
100 P F950J107MPAAQ2 12.6 35 1.2 ±20
100 Q F950J107MQAAQ2 6.3 30 1.1 ±20
100 S F950J107MSAAQ2 6.3 20 0.9 ±15
100 A F950J107MAAAQ2 6.3 14 0.5 ∗
100 T F950J107MTAAQ2 6.3 14 0.6 ∗
100 B F950J107MBAAQ2 6.3 14 0.4 ∗
150 B F950J157MBAAQ2 9.5 18 0.4 ∗
220 B F950J227MBAAQ2 13.9 30 0.4 ∗
330 B F950J337MBAAQ2 20.8 35 0.6 ±20
15 P F950G156MPAAQ2 0.6 10 1.8 ∗
22 P F950G226MPAAQ2 0.9 14 1.1 ∗
33 P F950G336MPAAQ2 1.3 14 1.1 ∗
47 P F950G476MPAAQ2 1.9 14 1.1 ∗
47 Q F950G476MQAAQ2 1.9 10 1.1 ∗
47 S F950G476MSAAQ2 1.9 10 0.8 ∗
47 A F950G476MAAAQ2 1.9 8 0.6 ∗
68 S F950G686MSAAQ2 2.7 10 0.8 ∗
68 A F950G686MAAAQ2 2.7 10 0.5 ∗
100 P F950G107MPAAQ2 4.0 30 1.2 ±15
100 Q F950G107MQAAQ2 4.0 25 1.0 ±15
100 S F950G107MSAAQ2 4.0 14 0.8 ∗
100 A F950G107MAAAQ2 4.0 12 0.5 ∗
150 P F950G157MPAAQ2 12.0 31 1.1 ±20
150 B F950G157MBAAQ2 6.0 14 0.4 ∗
220 Q F950G227MQAAQ2 8.8 30 1.5 ±20
220 S F950G227MSAAQ2 8.8 30 0.8 ±15
220 A F950G227MAAAQ2 8.8 25 0.8 ±15
220 T F950G227MTAAQ2 8.8 25 0.6 ∗
220 B F950G227MBAAQ2 8.8 16 0.4 ∗
330 A F950G337MAAAQ2 13.2 40 0.8 ±20
330 T F950G337MTAAQ2 13.2 40 0.8 ±20
330 B F950G337MBAAQ2 13.2 30 0.6 ±15
470 B F950G477MBAAQ2 18.8 40 0.4 ±20
4V
6.3V
10V
10V
16V
68 B F951A686MBAAQ2 6.8 12 0.4 ∗
100 A F951A107MAAAQ2 10.0 35 1.0 ±15
100 T F951A107MTAAQ2 10.0 20 0.6 ±15
100 B F951A107MBAAQ2 10.0 14 0.4 ∗
1 P F951V105MPAAQ2 0.5 8 10.0 ±10
1 S F951V105MSAAQ2 0.5 6 8.0
∗
1 A F951V105MAAAQ2 0.5 4 4.4
∗
1.5 A F951V155MAAAQ2 0.5 6 4.4
∗
2.2 A F951V225MAAAQ2 0.8 6 4.4 ∗
3.3 B F951V335MBAAQ2 1.2 6 1.6
∗
4.7 B F951V475MBAAQ2 1.7 6 1.6 ∗
1 R F951E105MRAAQ2 0.5 10 10.0 ±10
1 P F951E105MPAAQ2 0.5 6 8.0 ∗
1 S F951E105MSAAQ2 0.5 6 8.0 ∗
1.5 S F951E155MSAAQ2 0.5 6 7.0 ∗
2.2 R F951E225MRAAQ2 0.6 15 15.0 ±20
2.2 P F951E225MPAAQ2 0.6 8 6.0 ±15
2.2 S F951E225MSAAQ2 0.6 6 7.0 ∗
2.2 A F951E225MAAAQ2 0.6 6 3.2
∗
3.3 A F951E335MAAAQ2 0.8 6 2.8
∗
4.7 P F951E475MPAAQ2 1.2 10 8.0 ±15
4.7 Q F951E475MQAAQ2 1.2 10 4.0 ±15
4.7 S F951E475MSAAQ2 1.2 8 4.0
∗
4.7 A F951E475MAAAQ2 1.2 8 2.0 ∗
10 A F951E106MAAAQ2 2.5 12 2.0 ±15
10 B F951E106MBAAQ2 2.5 6 0.9 ∗
2.2 P F951D225MPAAQ2 0.5 6 6.0 ∗
2.2 S F951D225MSAAQ2 0.5 6 5.0 ∗
3.3 A F951D335MAAAQ2 0.7 6 2.0 ∗
4.7 S F951D475MSAAQ2 0.9 8 4.0 ∗
4.7 A F951D475MAAAQ2 0.9 6 1.5 ∗
6.8 Q F951D685MQAAQ2 1.4 10 4.0 ∗
6.8 A F951D685MAAAQ2 1.4 8 1.5 ∗
10 S F951D106MSAAQ2 2.0 10 4.0 ±10
10 A F951D106MAAAQ2 2.0 8 1.5 ∗
10 B F951D106MBAAQ2 2.0 6 0.8 ∗
22 B F951D226MBAAQ2 4.4 8 0.8 ∗
1 P F951C105MPAAQ2 0.5 8 8.0 ∗
1.5 P F951C155MPAAQ2 0.5 8 8.0 ∗
2.2 P F951C225MPAAQ2 0.5 8 6.0 ∗
3.3 P F951C335MPAAQ2 0.5 8 6.0 ∗
4.7 R F951C475MRAAQ2 0.8 12 6.0 ±20
4.7 P F951C475MPAAQ2 0.8 10 4.0 ∗
10 P F951C106MPAAQ2 1.6 10 4.0 ∗
10 Q F951C106MQAAQ2 1.6 8 3.0 ∗
10 S F951C106MSAAQ2 1.6 8 2.0 ∗
10 A F951C106MAAAQ2 1.6 6 1.4 ∗
15 S F951C156MSAAQ2 2.4 8 2.0 ∗
15 A F951C156MAAAQ2 2.4 8 1.4
∗
22 Q F951C226MQAAQ2 3.5 12 3.0 ∗
22 S F951C226MSAAQ2 3.5 10 2.0 ±15
22 A F951C226MAAAQ2 3.5 8 1.4 ∗
22 T F951C226MTAAQ2 3.5 8 1.4 ∗
22 B F951C226MBAAQ2 3.5 6 0.5 ∗
33 T F951C336MTAAQ2 5.3 11 1.5 ±10
33 B F951C336MBAAQ2 5.3 8 0.5 ∗
47 B F951C476MBAAQ2 7.5 10 0.6 ∗
20V
25V
35V
*1
∆C/C
(%)
Part Number
Leakage Current
(
µ
A)
Disspation
Factor
(
%@120Hz
)
Case
code ESR
(
Ω
@100kHz)
Rated Volt
Rated
Capacitance
(
µ
F)
*1
∆C/C
(%)
Part Number
Leakage Current
(
µ
A)
Disspation
Factor
(
%@120Hz
)
Case
code ESR
(
Ω
@100kHz)
Rated Volt
Rated
Capacitance
(
µ
F)
*2 *2
*2 :
Leakage Current After 1 minute's application of rated voltage, leakage current at 20˚C.
CAT.8100A
