SOLID TANTALUM ELECTROLYTIC CAPACITORS
Standard ratings
∗
As for the surge and derated voltage at 125
˚C
, refer to page 308 for details.
5N (0.51kg • f)
For 10 ± 1 seconds
F97Resin-molded Chip,
High Reliability
(High temperature /
moisture resistance) Series
Type numbering system (Example : 16V 3.3µF)
Dimensions
Marking
Drawing
Specifications
Taping code
(Refer to page 309 for details)
F
19
27
31
4C
53
63
75
8M
9B
10 11
Case code
Capacitance tolerance
Rated capacitance Rated voltage
Series
C • N CaseA • B Case
L
H
S
W1
W2
S
L
H
S
W1
W2
S
A Case B Case C Case
C105 3.3
16r
10
16r
Rated voltage
(Voltage code)Rated Capacitance
(Capacitance code )Rated voltage (V)Rated Capacitance (µF)
Rated Voltage (V)
Month code
Month code
N Case
47
10r
Case code
A
B
C
N
LW
1W2HS
(mm)
3.2 ± 0.2
3.5 ± 0.2
6.0 ± 0.2
7.3 ± 0.2
1.6 ± 0.2
2.8 ± 0.2
3.2 ± 0.2
4.3 ± 0.2
1.2 ± 0.1
2.2 ± 0.1
2.2 ± 0.1
2.4 ± 0.1
1.6 ± 0.2
1.9 ± 0.2
2.5 ± 0.2
2.8 ± 0.2
0.8 ± 0.2
0.8 ± 0.2
1.3 ± 0.2
1.3 ± 0.2
Item
--55 to +125
˚C
(Rated temperature : 85
˚C
.)
Category
Temperature Range
Capacitance Tolerance
Performance Characteristics
±20%, ±10% (at 120Hz)
Leakage Current
∗
•
After 1 minute' s application of rated voltage,leakage current at 20˚C
is not more than 0.01CV or 0.5
µ
A, whichever is greater.
•
After 1 minute' s application of rated voltage,leakage current at 85˚C
is not more than 0.1CV or 5
µ
A,whichever is greater.
•
After 1 minute' s application of derated voltage,leakage current at
125˚Cis not more than 0.125CV or 6.3
µ
A,whichever is greater.
Capacitance Change
by Temperature
+15% Max. (at +125
˚C
)
+10% Max. (at +85
˚C
)
--10% Max. (at --55
˚C
)
Damp Heat
(Steady State)
At 85
˚C
, 85% R.H.,For 1000 hours (No voltage applied)
Capacitance Change •••••• Within ±10% of the initial value
Dissipation Factor ••••••••••• Initial specified value or less
Leakage Current ••••••••••••
125% or less than the initial specified value
Load Humidity
After 500 hour' s application of rated voltage in series with a 33
Ω
resistor at 60
˚C
, 90 to 95
%
R.H.,
capacitor
s meet the characteristics
requirements listed below.
Capacitance Change •••••• Within ±10% of the initial value
Dissipation Factor •••••••••• Initial specified value or less
Leakage Current ••••••••••••
125% or less than the initial specified value
Temperature Cycles
At--55
˚C
/ +125
˚C
,For 30 minutes each,1000 cycles
Capacitance Change •••••• Within ±5% of the initial value
Dissipation Factor ••••••••••• Initial specified value or less
Leakage Current ••••••••••••• Initial specified value or less
Resistance
to Soldering Heat
At 260
˚C
,reflowing capacitors for 10 seconds Max.
Capacitance Change •••••• Within ±5% of the initial value
Dissipation Factor ••••••••••• Initial specified value or less
Leakage Current ••••••••••••• Initial specified value or less
Solderability After immersing capacitors completely into a solder pot at
245
˚C
for 2 to 3 seconds,more than 3/4 of their electrode area
shall remain covered with new solder.
Surge∗
After application of surge 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 •••••• Within ±5% of the initial value
Dissipation Factor ••••••••••• Initial specified value or less
Leakage Current ••••••••••••• Initial specified value or less
Endurance∗
After 2000 hours' application of rated voltage in series with a
3
Ω
resistor at 85
˚C
,or derated voltage in series with a 3
Ω
resistor at 125
˚C
,capacitors meet the characteristic
requirements listed below.
Capacitance Change •••••• Within ±10% of the initial value
Dissipation Factor ••••••••••• Initial specified value or less
Leakage Current ••••••••••••• Initial specified value or less
Shear Test
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 an aluminum
substrate, there shall be found neither
exfoliation nor its sign at the terminal
electrode.
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 by1mm as illustrated.
Then, there shall be found no
remarkable abnormality on the
capacitor terminals.
45 45
R230 20
1mm
Dissipation Factor
Refer to next page
ESR (100kHz) Refer to next page
Compliant to the RoHS directive (2002/95/EC).
6.3 10 16 20 25 35
0J 1A 1C 1D 1E 1V
0.33 334 A*
0.47 474 A*A
0.68 684 A A A
1 105 A*AA(A)
•B*
1.5 155 A*AAB
*(A) •B
2.2 225 A*AAA
•B*(A) •BB
3.3 335 A A A •B*BB(B)
•C
4.7 475 A A •BA
•BA
•B(B)
•CC
6.8 685 A •BB B(B)
•C C (C) •N
10 106 B*A•BA
•B•C(B)
•CC
•NN
15 156 B C*(B) •C N (C) •N
22 226 A •BA
•BB
•C•N (C) •N
33 336 (A) •C(B)
•C•N(B)
•(C) •N
47 476 B •C (C) •NN
68 686 N (N)
100 107 N
Cap.(
µ
F)
V
Code
( ) The series in parentheses are being developed.
Please contact to your local Nichicon sales office when these
series are being designed in your application.
CAT.8100Y-1
*:
Products which are scheduled to be discontinued.
Not recommended for new designs.
Standard Ratings
SOLID TANTALUM ELECTROLYTIC CAPACITORS
F97
2.2 A(*1)F970J225MAA 0.5 6 5.0
3.3 A F970J335MAA 0.5 4 4.5
4.7 A F970J475MAA 0.5 6 4.0
6.8 A F970J685MAA 0.5 6 3.5
6.8 B F970J685MBA 0.5 6 2.5
10 B(*1)F970J106MBA 0.6 6 2.1
15 B F970J156MBA 0.9 6 2.0
22 A F970J226MAA 1.4 12 2.5
22 B F970J226MBA 1.4 8 1.9
33 C F970J336MCC 2.1 6 1.1
47 B F970J476MBA 3.0 8 1.0
47 C F970J476MCC 3.0 6 0.9
68 N F970J686MNC 4.3 6 0.6
100 N F970J107MNC 6.3 8 0.6
1.5 A(*1)F971A155MAA 0.5 4 6.0
2.2 A F971A225MAA 0.5 4 5.0
3.3 A F971A335MAA 0.5 4 4.5
4.7 A F971A475MAA 0.5 6 4.0
4.7 B F971A475MBA 0.5 6 2.8
6.8 B F971A685MBA 0.7 6 2.5
10 A F971A106MAA 1.0 6 3.0
10 B F971A106MBA 1.0 6 2.0
15 C(*1)F971A156MCC 1.5 6 1.2
22 A F971A226MAA 2.2 15 3.0
22 B F971A226MBA 2.2 8 1.9
33 C F971A336MCC 3.3 6 1.1
33 N F971A336MNC 3.3 6 0.7
47 N F971A476MNC 4.7 6 0.7
1A
(*1)F971C105MAA 0.5 4 7.5
1.5 A F971C155MAA 0.5 4 6.3
2.2 A F971C225MAA 0.5 4 5.0
3.3 A F971C335MAA 0.5 4 4.5
3.3 B(*1)F971C335MBA 0.5 4 3.1
4.7 A F971C475MAA 0.8 8 4.0
4.7 B F971C475MBA 0.8 6 2.8
6.8 B F971C685MBA 1.1 6 2.5
10 A F971C106MAA 1.6 8 3.5
10 B F971C106MBA 1.6 6 2.1
10 C F971C106MCC 1.6 6 1.5
15 C F971C156MCC 2.4 6 1.2
22 B F971C226MBA 3.5 8 1.9
22 C F971C226MCC 3.5 8 1.1
22 N F971C226MNC 3.5 6 0.7
33 N F971C336MNC 5.3 6 0.7
47 N F971C476MNC 7.5 8 0.7
0.68 A F971D684MAA 0.5 4 7.6
1 A F971D105MAA 0.5 4 7.5
1.5 A F971D155MAA 0.5 4 6.7
2.2 A F971D225MAA 0.5 6 6.3
2.2 B(*1)F971D225MBA 0.5 4 3.8
3.3 B F971D335MBA 0.7 4 3.1
4.7 A F971D475MAA 0.9 8 4.0
4.7 B F971D475MBA 0.9 6 2.8
6.8 C F971D685MCC 1.4 6 1.8
10 C F971D106MCC 2.0 6 1.5
15 N F971D156MNC 3.0 6 0.7
22 N F971D226MNC 4.4 6 0.7
Part Number
Leakage
Current
(
µ
A)
Disspation
Factor
(%@120Hz)
Case
code ESR
(
Ω
@100kHz)
6.3
V
10
V
16
V
20
V
Rated Volt
Rated
Capacitance
(
µ
F)
0.47 A(*1)F971E474MAA 0.5 4 10.0
0.68 A F971E684MAA 0.5 4 7.6
1 A F971E105MAA 0.5 4 7.5
1.5 B(*1)F971E155MBA 0.5 4 4.0
2.2 B F971E225MBA 0.6 4 3.8
3.3 B F971E335MBA 0.8 4 3.5
4.7 C F971E475MCC 1.2 6 1.8
6.8 C F971E685MCC 1.7 6 1.8
10 C F971E106MCC 2.5 6 1.6
10 N F971E106MNC 2.5 6 1.0
15 N F971E156MNC 3.8 6 0.7
0.33 A(*1)F971V334MAA 0.5 4 12.0
0.47 A F971V474MAA 0.5 4 10.0
0.68 A F971V684MAA 0.5 4 7.6
1B
(*1)F971V105MBA 0.5 4 4.0
1.5 B F971V155MBA 0.5 4 4.0
2.2 B F971V225MBA 0.8 4 3.8
3.3 C F971V335MCC 1.2 4 2.0
4.7 C F971V475MCC 1.6 6 1.8
6.8 N F971V685MNC 2.4 6 1.0
10 N F971V106MNC 3.5 6 1.0
Part Number
Leakage
Current
(
µ
A)
Disspation
Factor
(%@120Hz)
Case
code ESR
(
Ω
@100kHz)
25V
35V
Rated Volt
Rated
Capacitance
(
µ
F)
In case of capacitance tolerance ±10% type, K will be put at 9th digit of type
numbering system.
CAT.8100Y-1
*1 :
Products which are scheduled to be discontinued.
Not recommended for new designs.
