CL32C121KJFNCNE [SAMSUNG]

Ceramic Capacitor, Multilayer, Ceramic, 2000V, 10% +Tol, 10% -Tol, C0G, -/+30ppm/Cel TC, 0.00012uF, 1210,;
CL32C121KJFNCNE
型号: CL32C121KJFNCNE
厂家: SAMSUNG    SAMSUNG
描述:

Ceramic Capacitor, Multilayer, Ceramic, 2000V, 10% +Tol, 10% -Tol, C0G, -/+30ppm/Cel TC, 0.00012uF, 1210,

文件: 总31页 (文件大小:508K)
中文:  中文翻译
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Multilayer Ceramic Capacitor  
- High Voltage -  
Multilayer Ceramic Capacitor - High Voltage  
INTRODUCTION  
SAMSUNG (Electro-Mechanics) mid/high voltage MLCC products with C0G(NP0) and X7R  
temperature characteristics are designed for commercial and industrial applications up to DC 3 KV,  
including power supply and voltage multiplier circuits applications. The specially-designed internal  
and external structures are capable of enhancing high voltage performance of chips. Various sizes  
and voltage ratings are available for corresponding capacitance ranges. Please contact and  
consult the local offices/headquarter of SAMSUNG Electro-Mechanics.  
FEATURE AND APPLICATION  
Feature  
- Miniature Size  
- Wide Capacitance and Voltage Range  
- Highly Reliable Performance in High-voltage  
- Tape & Reel for Surface Mount Assembly  
- Low ESR  
Application  
- Input Signal Filtering Circuit of Modem and LAN Interface  
- General High Voltage Circuits  
- Inverter Circuits with a Liquid Backlight  
- 1 -  
Multilayer Ceramic Capacitor - High Voltage  
STRUCTURE  
- 2 -  
Multilayer Ceramic Capacitor - High Voltage  
APPEARANCE AND DIMENSION  
L
T
W
BW  
DIMENSION ( mm )  
CODE  
EIA CODE  
L
W
T (MAX)  
BW  
±
±
±
0.8 0.1  
0603  
0805  
1206  
1210  
1810  
1812  
2220  
1.6  
2.0  
3.2  
3.2  
4.5  
4.5  
5.7  
0.1  
0.1  
0.2  
0.3  
0.4  
0.4  
0.4  
0.8  
0.1  
0.3 + 0.2/-0.1  
0.5 + 0.2/-0.3  
0.5 + 0.2/-0.3  
0.6 + 0.2/-0.1  
0.8 + 0.2/-0.1  
0.8 + 0.2/-0.1  
0.8 + 0.2/-0.1  
10  
21  
31  
32  
42  
43  
55  
±
±
±
±
±
±
±
±
1.25 0.1  
1.25  
0.1  
±
±
±
±
±
±
1.6  
2.5  
2.0  
3.2  
3.2  
0.2  
0.2  
0.2  
0.3  
0.4  
1.6  
2.5  
2.0  
2.5  
2.5  
0.2  
0.2  
0.2  
0.2  
0.2  
±
±
±
±
- 3 -  
Multilayer Ceramic Capacitor - High Voltage  
PREVIOUS PART NUMBERING  
CL 42  
C
3
270  
4
J
5
K
6
N
7
E
8
1
2
1
2
SAMSUNG Multilayer Ceramic Capacitor  
Type(Size)  
3
Capacitance Temperature Characteristics  
4
5
6
Nominal Capacitance  
Capacitance Tolerance  
Rated Voltage  
7
Thickness Option  
8
Packaging Type  
3
CAPACITANCE TEMPERATURE CHARACTERISTIC  
(Temperature Compensation)  
CLASS  
Temperature  
Coefficient(PPM/  
Temperature  
Operation  
Symbol  
C
EIA Code  
)
Characteristics Temperature Range  
±
Δ
C
-55 ~ +125  
C0G(CH)  
0
30  
Temperature Characteristics  
Temperature  
Characteristics  
below 2.0pF 2.2 ~ 3.9pF above 4.0pF above 10pF  
Δ
C
C0G  
C0G  
C0G  
C0G  
(High Dielectric Constant)  
CLASS  
Capacitance Change  
Operation  
Temperature Range  
Symbol  
B
EIA Code  
Δ
( C : %)  
±
-55 ~ +125  
X7R  
15  
- 4 -  
Multilayer Ceramic Capacitor - High Voltage  
4
NOMINAL CAPACITANCE  
The nominal capacitance value is expressed in pico-Farad(pF) and identified by three-  
digit number, first two digits represent significant figures and last digit specifies the  
number of zeros to follow. For values below 1pF, the letter "R" is used as the decimal  
point and the last digit becomes significant.  
example)  
×
100 : 10  
102 : 10  
10o = 10pF  
102 = 1000pF  
×
×
020 :  
2
10o =  
2pF  
1R5 : 1.5pF  
5
CAPACITANCE TOLERANCE  
Temperature  
Characteristics  
Symbol  
Tolerance  
Applicable Capacitance & Range  
±
C
D
J
0.25pF  
0.5pF  
5%  
0.5 ~ 10pF  
±
C
±
±
±
±
±
±
(C0G)  
K
M
J
10%  
20%  
5%  
E-24 Series for over 10pF  
E-12 Series  
B(X7R)  
K
M
10%  
20%  
Please Consult us for special tolerances.  
: Option  
6
RATED VOLTAGE  
Symbol  
Rated Voltage(Vdc)  
Symbol  
Rated Voltage(Vdc)  
630Vdc  
100Vdc  
200Vdc  
250Vdc  
500Vdc  
C
D
E
G
H
I
1000Vdc  
2000Vdc  
J
K
3000Vdc  
- 5 -  
Multilayer Ceramic Capacitor - High Voltage  
7
THICKNESS OPTION  
Symbol  
Description of the Code  
Standard thickness (please refer to standard thickness table on next page)  
Thinner than standard thickness  
N
A
B
Thicker than standard thickness  
Please consult us for other termination type.  
8
PACKAGING TYPE  
Symbol  
Packaging  
Bulk  
Symbol  
Packaging  
Paper Tape, 13" Reel  
Embossed Tape, 7" Reel  
Embossed Tape, 13" Reel  
B
P
C
D
E
F
Cassette  
Paper Tape, 7" Reel  
STANDARD CAPACITANCE STEP  
Series  
Capacitance Step  
1.0  
2.2  
4.7  
E- 3  
E- 6  
E-12  
1.0  
1.5  
2.2  
3.3  
4.7  
6.8  
1.0  
1.0  
1.1  
1.2  
1.2  
1.3  
1.5  
1.5  
1.6  
1.8  
1.8  
2.0  
2.2  
2.2  
2.4  
n
2.7  
2.7  
3.0  
3.3  
3.3  
3.6  
3.9  
3.9  
4.3  
4.7  
4.7  
5.1  
5.6  
5.6  
6.2  
6.8  
6.8  
7.5  
8.2  
8.2  
9.1  
E-24  
×
Standard Capacitance is " Each step 10 "  
- 6 -  
Multilayer Ceramic Capacitor - High Voltage  
NEW PART NUMBERING  
CL 42  
C
270  
4
J
K
F
N
N
N
C
1
2
5
6
7
8
9
10  
11  
3
● ●  
● ● ● ● ● ● ●  
1
2
SAMSUNG Multilayer Ceramic Capacitor  
Size(mm)  
3
4
Capacitance Temperature Characteristic  
Nominal Capacitance  
5
6
Capacitance Tolerance  
Rated Voltage  
7
Thickness Option  
8
9
10  
11  
Product & Plating Method  
Samsung Control Code  
Reserved For Future Use  
Packaging Type  
1
PRODUCT ABBREVIATION  
Symbol  
Product Abbreviation  
SAMSUNG Multilayer Ceramic Capacitor  
CL  
2
SIZE(mm)  
Symbol  
Size(mm)  
Length  
1.6  
Width  
0.8  
10  
21  
31  
32  
42  
43  
55  
2.0  
1.2  
3.2  
1.6  
3.2  
2.5  
4.5  
2.0  
4.5  
3.2  
5.7  
5.0  
- 7 -  
Multilayer Ceramic Capacitor - High Voltage  
3
CAPACITANCE TEMPERATURE CHARACTERISTIC  
Temperature  
Range  
Symbol  
Temperature Characteristics  
±
0
)
Class  
Class  
COG  
X7R  
C
30(ppm/  
-55 ~ +125  
-55 ~ +125  
C
B
±
15%  
X7R  
Temperature Characteristic  
Temperature  
Characteristics  
Below 2.0pF  
2.2 ~ 3.9pF  
Above 4.0pF  
Above 10pF  
Δ
C
C0G  
C0G  
C0G  
C0G  
4
NOMINAL CAPACITANCE  
Nominal capacitance is identified by 3 digits.  
The first and second digits identify the first and second significant figures of the capacitance.  
The third digit identifies the multiplier. 'R' identifies a decimal point.  
Example  
Symbol  
1R5  
Nominal Capacitance  
1.5pF  
μ
F
103  
10,000pF, 10nF, 0.01  
μ
100,000pF, 100nF, 0.1 F  
104  
5
CAPACITANCE TOLERANCE  
Symbol  
Tolerance  
Nominal Capacitance  
±
0.25pF  
C
D
J
Less than 10pF  
(Including 10pF)  
±
0.5pF  
±
5%  
±
10%  
20%  
More than 10pF  
K
M
±
- 8 -  
Multilayer Ceramic Capacitor - High Voltage  
6
RATED VOLTAGE  
Symbol  
Rated Voltage  
100V  
Symbol  
Rated Voltage  
630V  
C
D
E
G
H
I
200V  
1,000V  
250V  
2,000V  
J
K
500V  
3,000V  
7
THICKNESS OPTION  
Type  
Symbol  
Thickness(T)  
Spec  
±
1608  
0.80  
0.65  
0.85  
1.25  
0.85  
1.25  
1.6  
0.10  
8
A
C
F
C
F
H
F
H
I
±
0.10  
2012  
3216  
±
0.10  
±
0.15  
±
0.15  
±
0.20  
1.25  
1.6  
±
0.20  
±
0.20  
±
0.20  
3225  
4520  
4532  
2.0  
2.5  
J
F
H
F
H
I
1.25  
1.6  
1.25  
1.6  
2.0  
2.5  
J
F
H
I
1.25  
1.6  
±
0.20  
5750  
2.0  
2.5  
J
- 9 -  
Multilayer Ceramic Capacitor - High Voltage  
8
PRODUCT & PLATING METHOD  
Symbol  
Electrode  
Termination  
Plating Type  
Pd  
Ni  
Ag  
Cu  
Cu  
Sn_100%  
Sn_100%  
Sn_100%  
A
N
G
Cu  
9
SAMSUNG CONTROL CODE  
Symbol  
Description of the code  
Symbol  
Description of the code  
Normal  
Array (2-element)  
Array (4-element)  
High - Q  
A
B
C
L
N
P
Automotive  
3 Terminal EMI Filter  
W
LICC  
10  
RESERVED FOR FUTURE USE  
Symbol  
Description of the code  
N
Reserved for future use  
11  
PACKAGING TYPE  
Symbol  
Packaging Type  
Bulk  
Symbol  
Packaging Type  
Embossing 13" (10,000EA)  
Paper 13" (15,000EA)  
Paper 10"  
B
P
C
D
E
F
L
Bulk Case  
Paper 7"  
O
S
Paper 13" (10,000EA)  
Embossing 7"  
Embossing 10"  
- 10 -  
Multilayer Ceramic Capacitor - High Voltage  
CAPACITANCE vs CHIP THICKNESS STANDARD  
4520  
Type  
(1808)  
1608  
(0603)  
2012 Type  
(0805)  
3216 Type  
(1206)  
3225 Type  
(1210)  
4532 Type  
(1812)  
5750 Type  
(2220)  
Description  
±
0.2  
1.6  
3.2  
±
±
±
±
±
±
5.7 0.4  
2.0 0.1  
3.2 0.15  
3.2 0.3  
4.5 0.4  
4.5 0.4  
L
±
0.1  
0.1  
0.1  
±
0.2  
Dimension  
(mm)  
0.8  
1.6  
±
±
±
±
±
±
1.25 0.1  
1.6 0.15  
2.5 0.2  
2.0 0.2  
3.2 0.3  
5.0 0.4  
W
±
0.8  
0.65  
0.85 1.25 0.85  
1.25  
1.6  
0.2  
1.25  
1.6  
2.0  
2.5  
1.25  
1.6  
1.25  
1.6  
2.0  
2.5  
1.6  
2.0  
2.5  
±
0.2  
T
±
±
±
0.1  
±
0.1  
±
±
±
±
±
±
±
±
±
±
±
±
±
±
±
0.2  
0.1  
0.15  
0.15  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.5~  
680  
0.5~ 620~  
0.5~ 1600~ 3600~  
1500 3300 3900  
1000  
1000  
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
SL  
100V  
100V  
200V  
250V  
500V  
630V  
1kV  
560  
910  
15000  
~
18000  
10000  
~
15000  
0.5~  
390  
0.5~ 470~  
0.5~ 2700~ 3900~ 4700~ 8200~  
2200 3300 6800 6800 10000  
27000~  
33000  
12000  
-
-
-
-
-
-
-
-
-
-
-
-
18000 22000  
-
-
-
-
-
390  
820  
C
A
P
A
C
I
33~ 560~ 220~ 820~ 1500~  
470 1000 680  
5600~  
8200  
10000~  
18000  
-
-
-
-
-
-
-
-
3300 3900 4700  
-
-
-
-
-
1200 2700  
-
-
-
-
-
-
-
-
680  
-
-
-
-
-
-
-
2200  
-
-
-
6800  
-
12000  
22000  
T
A
N
C
10~  
560  
680~ 470~ 1200~  
1000 1000 1500  
470~ 1800~  
1500 2200  
3300~  
5600  
8200~  
10000  
-
-
-
-
-
-
-
-
2700  
6800  
E
C, TC  
(Except  
SL,UJ)  
R
A
N
G
E
-
-
820  
-
-
-
2200  
-
-
-
4700  
-
10000  
p
F
10~  
150  
180~  
270  
470~  
560  
470~ 820~  
680 1000  
1500~  
1800  
2200~  
3600  
-
680  
820  
1200  
-
47~  
180  
270~  
330  
10~ 180~ 47~ 150~  
150  
270~  
390  
-
-
-
10~47  
-
220  
470  
220  
-
-
2kV  
220  
120  
180  
10~  
100  
100~  
180  
270~  
390  
470~  
820  
-
-
-
-
-
-
-
-
220  
-
3kV  
0.47~ 0.22~  
10  
22~  
68  
1~  
47  
68~  
100  
2.2~  
150  
100~  
330  
680~  
1000  
15  
150  
220  
-
-
-
-
-
-
-
-
-
-
470  
-
-
-
1500  
-
-
100V  
200V  
250V  
500V  
630V  
1kV  
10  
C
A
P
A
C
I
T
A
N
C
E
0.22~1  
0
0.47~ 33~  
68~  
100  
47~  
100  
-
-
-
-
-
-
-
-
-
-
-
-
-
-
22  
47  
1~ 4.7~1  
33~  
47  
150~  
220  
330~  
470  
-
-
-
-
-
-
-
-
-
-
-
22  
-
68  
-
100  
-
-
-
-
3.3  
5
0.47~ 22~  
10~  
33  
10~  
47  
-
-
-
-
-
-
470  
-
-
-
-
-
68  
-
100  
-
-
150  
220  
-
-
-
(X7R)  
15  
33  
R
A
N
G
E
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
n
F
0.47~  
3.3  
3.3~  
6.8  
1.5~  
10  
15~  
22  
-
-
-
33  
-
47  
-
68  
-
0.47~ 0.47~  
1
1~  
3.3  
3.3~  
10  
-
-
1
-
2kV  
1
- 11 -  
Multilayer Ceramic Capacitor - High Voltage  
PACKAGING  
CARDBOARD PAPER TAPE  
Perforated square  
holes for inserting a chip  
Feeding round holes  
D
E
F
A
W
B
t
P0  
P1  
P2  
P2  
P1  
unit : mm  
Symbol  
Type  
W
F
E
P0  
D
t
A
B
1.1  
1.9  
D
10  
21  
31  
e
m
e
n
s
±
±
0.2  
0.2  
0.2  
0.2  
φ
8.0  
3.5  
1.75  
4.0  
2.0  
4.0  
±
1.5  
1.1  
Max  
1.6  
2.4  
±
0.3  
±
0.05  
±
0.1  
±
0.1  
±
0.05  
±
±
0.1 +0.1/-0  
0.2  
i
o
n
2.0  
3.6  
±
±
0.2  
EMBOSSED PLASTIC TAPE  
Perforated square  
holes for inserting a chip  
Feeding round holes  
D
E
A
F
W
B
t1  
P0  
P2  
P1  
t0  
unit : mm  
Symbol  
Type  
W
F
E
P1  
P2  
P0  
D
t0  
t1  
A
B
1.45  
2.3  
21  
31  
32  
D
i
±
±
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
0.2  
2.0  
±
3.6  
8.0  
3.5  
4.0  
±
0.1  
2.5  
max  
m
e
n
s
i
±
±
0.3  
±
0.05  
Φ
1.75  
2.0  
4.0  
1.5  
0.6  
±
±
0.05  
±
0.1 +0.1/-0 Max  
0.1  
2.9  
±
3.6  
±
o
n
43  
(42)  
12  
5.6  
8.0  
3.8  
max  
2.5(3.6)  
±
0.2  
4.9  
±
0.3  
±
0.05  
±
±
0.1  
- 12 -  
Multilayer Ceramic Capacitor - High Voltage  
TAPING SIZE  
Empty Section  
Empty Section  
50 Pitch  
Loading Section  
35 Pitch  
Packed Part  
45 Pitch  
END  
START  
unit : pcs  
Symbol  
Cardboard Paper Tape  
Embossed Plastic Tape  
4000  
2000  
-
7" Reel  
15000  
13" Reel  
REEL DIMENSION  
E
C
B
R
D
W
t
A
unit : mm  
Symbol  
A
B
C
D
E
W
t
R
φ
φ
±
φ
178 2.0 min. 50  
7" Reel  
φ ±  
±
±
±
10 1.5  
±
13 0.5 21 0.8  
2.0 0.5  
0.8 0.2  
1.0  
±
φ
330 2.0 min. 70  
13" Reel  
- 13 -  
Multilayer Ceramic Capacitor - High Voltage  
BULK CASE PACKAGING  
- Bulk case packaging can reduce the stock space and transportation costs.  
- The bulk feeding system can increase the productivity.  
- It can eliminate the components loss.  
A
B
T
C
D
E
W
F
G
H
L
I
Symbol  
A
B
T
C
D
E
±
±
±
±
6.8 0.1  
8.8 0.1  
12 0.1  
1.5+0.1/-0  
2+0/-0.1  
4.7 0.1  
Dimension  
Symbol  
F
W
G
H
L
I
±
±
7 0.35  
±
±
5 0.35  
31.5+0.2/-0  
36+0/-0.2  
19 0.35  
110 0.7  
Dimension  
QUANTITY  
21(0805)  
Size  
05(0402)  
80,000  
10(0603)  
T 0.85mm  
T 1.0mm  
10,000~15,000  
10,000  
5,000  
Quantity  
- 14 -  
Multilayer Ceramic Capacitor - High Voltage  
CHARACTERISTIC MAP  
CLASS  
Capacitance Range (  
)
Temperature  
Characteristics  
Size  
Voltage  
10  
100  
1000  
390  
10000 100000 1000000 10000000 100000000  
0.5  
10  
(0603)  
100V  
100V  
200V  
250V  
100V  
200V  
250V  
500V  
630V  
1000V  
2000V  
100V  
200V  
250V  
500V  
630V  
1000V  
2000V  
2000V  
3000V  
100V  
200V  
250V  
500V  
630V  
1000V  
2000V  
3000V  
250V  
500V  
630V  
1000V  
3000V  
1000  
1000  
680  
21  
33  
(0805)  
6800  
220  
2700  
2200  
1000  
820  
31  
(1206)  
10  
10  
10  
270  
47  
4700  
3300  
18000  
8200  
6800  
32  
(1210)  
470  
1500  
2200  
C0G  
470  
820  
47  
470  
220  
10  
10  
42  
(1808)  
100  
33000  
10000  
10000 18000  
12000  
470  
470  
5600  
4700  
43  
(1812)  
1800  
47  
390  
390  
100  
22000  
10000  
10000  
6800  
55  
(2220)  
2200  
820  
3600  
470  
- 15 -  
Multilayer Ceramic Capacitor - High Voltage  
, B(X7R)  
CLASS  
Capacitance Range (  
)
Temperature  
Characteristics  
Size  
Voltage  
10  
100  
470  
1000  
10000  
100000 1000000 10000000 100000000  
10  
(0603)  
100V  
100V  
200V  
250V  
100V  
200V  
250V  
500V  
1000V  
2000V  
100V  
250V  
500V  
1000V  
2000V  
10000  
220  
220  
68000  
21  
10000  
15000  
(0805)  
1000  
150000  
100000  
47000  
33000  
1000  
470  
22000  
3300  
31  
(1206)  
470  
470  
470  
1000  
2200  
220000  
100000  
470000  
68000  
10000  
6800  
32  
(1210)  
B(X7R)  
3300  
1000  
470  
42(1808) 2000V  
100V  
1000  
100000  
330000  
100000  
220000  
100000  
200V  
47000  
250V  
43  
150000  
(1812)  
500V  
10000  
3300  
1000V  
2000V  
100V  
1500  
33000  
1000  
680000  
1500000  
470000  
220000  
250V  
330000  
150000  
68000  
55  
500V  
(2220)  
47000  
1000V  
2000V  
3300  
10000  
- 16 -  
Multilayer Ceramic Capacitor - High Voltage  
RELIABILITY TEST DATA  
NO  
1
ITEM  
PERFORMANCE  
TEST CONDITION  
NO ABNORMAL EXTERIOR  
APPEARANCE  
×
APPEARANCE  
THROUGH MICROSCOPE( 10)  
10,000 OR 500  
㏁·㎌  
PRODUCT  
RATED VOLTAGE SHALL BE APPLIED.  
MEASUREMENT TIME IS 60 ~ 120sec  
RATED VOLTAGE TIME 60 SEC.  
INSULATION  
RESISTANCE  
WHICHEVER IS SMALLER  
2
3
(RATED VOLTAGE IS BELOW 16V  
㏁·㎌  
: 10,000 OR 100  
)
Rated voltage  
Vr<500Vdc  
500Vdc≤Vr<1000Vdc  
1000Vdc≤Vr  
Applied voltage  
200% of Vr  
150% of Vr  
120% of Vr  
WITHSTANDING  
VOLTAGE  
NO DIELECTRIC BREAKDOWN OR  
MECHANICAL BREAKDOWN  
VOLTAGE APPLIED in 1~5 sec  
CURRENT APPLIED : 50mA BELOW  
CAPACITANCE FREQUENCY  
VOLTAGE  
CLASS  
WITHIN THE SPECIFIED  
TOLERANCE  
1,000 AND BELOW  
㎒±  
1
1
10%  
10%  
0.5 ~ 5 Vrms  
㎑±  
±
CAPACITANCE  
MORE THAN 1,000  
FREQUENCY  
㎑±  
1.0 0.2Vrms  
4
VOLTAGE  
CLASS  
WITHIN THE SPECIFIED  
TOLERANCE  
±
1
10%  
1.0 0.2Vrms  
CAPACITANCE  
FREQUENCY  
VOLTAGE  
0.5 ~ 5 Vrms  
VOLTAGE  
OVER 30 : Q 1,000  
CLASS  
1,000 AND BELOW  
㎒±  
Q
LESS THAN 30 : Q 400 +20C  
1
1
10%  
10%  
5
6
( C : CAPACITANCE )  
㎑±  
MORE THAN 1,000  
FREQUENCY  
δ
Tan  
CLASS B : 2.5% Max (0.025 Max)  
(DF)  
C : 0.1% MAx (0.001Max)  
±
±
1.0 0.2Vrms  
1kHz 10%  
THE TEMPERATURE COEFFICIENT IS CALCULATED  
IN ppm/ FOR GIVEN TEMPERATURE(T1=25  
,T1=85  
)
TEST STEP  
Step  
TEMPERATURE(  
)
TEMP.  
±
2
1
2
3
4
5
25  
MIN. OPERATING TEMP.  
±
0
)
C
30(ppm/  
TEMPERATURE  
COEFFICIENT  
COEFFICIENT  
±
2
7
±
25  
2
CHARACTERISTICS  
±
MAX. OPERATING TEMP.  
2
±
25  
2
* MEASURE THE CAPACITANCE IN EACH STEP  
AT THERMAL EQUILIBRIUM  
CAPACITANCE  
CHANGE  
±
15%  
B
A 500g.f PRESSURE SHALL BE  
±
APPLIED FOR 10 1 SECONDS.  
NO INDICATION OF PEELING  
ADHESIVE STRENGTH OCCUR ON THE TERMINAL  
OF TERMINATION ELECTRODE.  
8
500g.f  
- 17 -  
Multilayer Ceramic Capacitor - High Voltage  
NO  
ITEM  
PERFORMANCE  
TEST CONDITION  
APPEARANCE NO MECHANICAL DAMAGE SHALL  
OCCUR.  
BENDING SHALL BE APPLIED TO  
THE LIMIT(1mm) WITH 0.3mm/SEC.  
20  
CHANGE OF  
CHARACTER  
R=340  
CAPACITANCE  
50  
BENDING  
9
±
WITHIN 5% OR  
STRENGTH  
±
0.5 pF  
C(C0G)  
CAPACITANCE  
BENDING  
LIMIT  
WHICHEVER IS  
LARGER  
±
±
45 1  
45  
1
±
B(X7R)  
WITHIN 12.5%  
MORE THAN 75% OF THE TERMINAL  
SURFACE IS TO BE SOLDERED  
NEWLY. THERE MAY BE PINHOLES,  
SPOTS. BUT THESE MUST NOT BE AT  
ONE POINT  
± ℃  
SOLDER TEMPERATURE : 230  
5
IMMERSED DEPTH : 10 ~15 mm  
SOLDER  
FLUX  
: H63A  
: ROSIN  
*PB-FREE  
± ℃  
5
SOLDER TEMPERATURE : 260  
SOLDER : Sn96.5-3Ag-0.5Cu  
Flux : RMA TYPE  
SOLDERABILITY  
10  
±
DIP TIME : 3 0.1Sec  
IN PB--FREE PART, MORE THAN 95%  
OF THE TERMINAL SURFACE IS TO  
BE SOLDERED NEWLY  
PRE-HEATING : AT 80~120  
FOR 10~30SEC.  
DIP : SOLDER TEMPERATURE OF  
± ℃  
NO MECHANICAL DAMAGE  
SHALL OCCUR  
APPEARANCE  
270  
5
±
DIP TIME : 10 1 SEC.  
CHARACTERISTIC  
CAP. CHANGE  
EACH TERMINATION SHALL BE FULLY  
IMMERSED AND PREHEATED  
AS FOLLOWING:  
±
WITHIN 2.5% OR  
±
0.25  
CLASS  
WHICHEVER IS  
LARGER  
CAPACITANCE  
TIME  
TEMP.( )  
STEP  
(SEC.)  
60  
RESISTANCE  
TO  
±
WITHIN 7.5%  
B
F
1
2
80~100  
CLASS  
±
WITHIN 20%  
11  
150~180  
60  
SOLDERING  
HEAT  
㎊ ≥  
30 AND OVER : Q 1000  
Q
×
CLASS  
LESS THAN 30  
: Q 400+20 C  
MEASURE AT ROOM TEMP. AFTER  
COOLING FOR  
δ
Tan  
TO SATISFY THE SPECIFIED  
INITIAL VALUE  
CLASS  
CLASS : 24  
±
±
2 HOURS  
4 HOURS  
INSULATION  
RESISTANCE  
TO SATISFY THE SPECIFIED  
INITIAL VALUE  
CLASS : 48  
WITHSTANDING TO SATISFY THE SPECIFIED  
VOLTAGE INITIAL VALUE  
- 18 -  
Multilayer Ceramic Capacitor - High Voltage  
NO  
ITEM  
PERFORMANCE  
TEST CONDITION  
THE CAPACITOR SHALL BE  
SUBJECTED TO A HARMONIC  
MOTION HAVING A TOTAL  
AMPLITUDE OF 1.5mm.  
APPEARANCE NO MECHANICAL DAMAGE SHALL OCCUR.  
CHARACTERISTIC CAP. CHANGE  
±
±
WITHIN 2.5% OR  
WHICHEVER  
CAPACITANCE  
CLASS  
CLASS  
0.25  
IS LARGER  
THE ENTIRE FREQUENCY RANGE,  
FROM 10 TO 55Hz AND RETURN  
TO 10Hz, SHALL BE TRAVERSED  
IN 1 MINUTE.  
±
WITHIN 5%  
VIBRATION  
TEST  
㎊ ≥  
30 AND OVER : Q 1000  
Q
12  
×
CLASS  
LESS THAN 30 : Q 400+20 C  
δ
Tan  
TO SATISFY THE SPECIFIED  
INITIAL VALUE  
CLASS  
THIS CYCLE SHALL BE PERFORMED  
2 HOURS IN EACH THERE  
MUTUALLY PERPENDICULAR  
DIRECTION,  
INSULATION  
RESISTANCE  
TO SATISFY THE SPECIFIED  
INITIAL VALUE  
FOR TOTAL PERIOD OF 6 HOURS.  
APPEARANCE NO MECHANICAL DAMAGE SHALL OCCUR  
CAPACITANCE  
CHARACTERISTIC  
CHANGE  
±
WITHIN 5% OR  
±
: 40  
2
TEMPERATURE  
±
0.5 WHICHEVER  
CLASS  
CLASS  
RELATIVE HUMIDITY : 90~95 %RH  
TEST TIME : 500 +12/-0 Hr.  
CAPACITANCE  
IS LARGER  
±
WITHIN 12.5%  
MEASURE AT ROOM TEMPERATURE  
AFTER COOLING FOR  
HUMIDITY  
(STEADY  
STATE)  
30 AND OVER : Q 350  
13  
Q
±
CLASS : 24 2 Hr.  
10 ~30  
×
C
: Q 275 + 2.5  
CLASS  
±
CLASS : 48 4 Hr.  
×
C
LESS THAN 10pF : Q 200 + 10  
δ
Tan  
B : 5% MAX ( 0.05 MAX)  
C : 0.1 MAX (0.001 MAX)  
CLASS  
MINIMUM INSULATION RESISTANCE:  
INSULATION  
RESISTANCE  
㏁·㎌  
OR 50  
1,000  
PRODUCT  
WHICHEVER IS SMALLER  
* THE INITIAL VALUE OF HIGH DIELECTRIC CONSTANT SERIES SHALL BE MEASURED  
±
AFTER THE HEAT TREATMENT OF 150 +0/-10 , 1Hr AND SITTING OF 48 4hr AT ROOM TEMPERATURE &  
ROOM HUMIDITY.  
- 19 -  
Multilayer Ceramic Capacitor - High Voltage  
NO  
ITEM  
PERFORMANCE  
TEST CONDITION  
1KV TO 3KV PRODUCTS ARE NOT  
APPLIED TO THIS TEST WITHOUT  
COATING THE TESTED SAMPLES  
WITH EPOXY FOR INSULATION  
NO MECHANICAL DAMAGE SHALL  
OCCUR  
APPEARANCE  
CHARACTERIST  
IC  
CAPACITANCE  
CHANGE  
±
WITHIN 7.5% OR  
APPLIED VOLTAGE :  
RATED VOLTAGE  
CAPACITANCE  
±
0.75 WHICHEVER  
CLASS  
CLASS  
IS LARGER  
±
2
TEMPERATURE : 40  
±
WITHIN 12.5%  
RELATIVE HUMIDITY:90~95%RH  
TEST TIME : 500 +12/-0 Hr.  
㎊ ≥  
30 AND OVER : Q 200  
Q
CURRENT APPLIED : 50  
MAX.  
×
CLASS  
30 AND BELOW : Q 100 + 10/3 C  
δ
Tan  
B : 5% MAX ( 0.05 MAX)  
C : 0.1 MAX (0.001 MAX)  
<INITIAL MEASUREMENT>  
MOISTURE  
CLASS  
14  
CLASS  
SHOULD BE MEASURED  
RESISTANCE  
INITIAL VALUE AFTER BE  
HEAT-TREATED FOR 1 HR IN 150  
±
+0/-10 AND BE LEFT FOR 48 4HR AT  
ROOM TEMPERATURE.  
<LATTER MEASUREMENT>  
MINIMUM INSULATION RESISTANCE:  
㏁·㎌  
CLASS SHOULD BE MEASURED AFTER  
INSULATION  
RESISTANCE  
500  
OR 25  
PRODUCT,  
±
LEFT FOR 24 2 HRS IN ROOM  
TEMPERATURE AND HUMIDITY.  
WHICHEVER IS SMALLER.  
CLASS  
SHOULD BE MEASURED  
LATTER VALUE AFTER BE  
HEAT-TREATED FOR 1 HR IN 150  
±
+0/-10 AND BE LEFT FOR 48 4HR AT  
ROOM TEMPERATURE.  
APPLIED VOLTAGE :  
for Vr<500Vdc,200% OF Vr  
NO MECHANICAL DAMAGE SHALL  
OCCUR  
APPEARANCE  
for 500Vdc Vr<1000Vdc,120% OF Vr  
for 1000Vdc Vr, Vr  
CHARACTERIST  
CAP. CHANGE  
IC  
TEST TIME : 1000 +48/-0 Hr.  
CURRENT APPLIED : 50 MAX.  
±
WITHIN 3% OR  
± ℃  
2
TEMP: MAX OPERATING TEMP  
±
0.3 , WHICHEVER IS  
CLASS  
CLASS  
CAPACITANCE  
LARGER  
<INITIAL MEASUREMENT>  
HIGH  
CLASS  
SHOULD BE MEASURED  
TEMPERATURE  
RESISTANCE  
15  
INITIAL VALUE AFTER BE  
±
WITHIN 12.5%  
HEAT-TREATED FOR 1 HR IN 150  
±
+0/-10 AND BE LEFT FOR 48 4HR  
30 AND OVER : Q  
350  
AT ROOM TEMPERATURE.  
Q
×
275 + 2.5  
10 ~ 30  
: Q  
C
<LATTER MEASUREMENT>  
CLASS  
×
LESS THAN 10 :Q 200 + 10  
C
CLASS SHOULD BE MEASURED  
±
AFTER LEFT FOR 24 2 HRS IN ROOM  
δ
Tan  
B : 5% MAX (0.05 MAX)  
TEMPERATURE AND HUMIDITY.  
CLASS  
C : 0.1% MAX (0.001 MAX)  
CLASS  
SHOULD BE MEASURED  
LATTER VALUE AFTER BE  
MINIMUM INSULATION RESISTANCE:  
INSULATION  
RESISTANCE  
HEAT-TREATED FOR 1 HR IN 150  
㏁·㎌  
OR 50  
1,000  
PRODUCT  
±
+0/-10 AND BE LEFT FOR 48 4HR  
WHICHEVER IS SMALLER  
AT ROOM TEMPERATURE.  
- 20 -  
Multilayer Ceramic Capacitor - High Voltage  
NO  
ITEM  
PERFORMANCE  
TEST CONDITION  
CAPACITORS SHALL BE SUBJECTED  
TO FIVE CYCLES OF THE  
TEMPERATURE CYCLE AS  
FOLLOWING  
NO MECHANICAL DAMAGE SHALL  
OCCUR  
APPEARANCE  
CHARACTERISTIC  
CAP. CHANGE  
±
WITHIN 2.5%  
±
OR 0.25  
CLASS  
CLASS  
TIME  
WHICHEVER IS  
LARGER  
CAPACITANCE  
TEMP.( )  
STEP  
(MIN)  
MIN.  
±
WITHIN 7.5%  
1
2
3
4
RATED TEMP.  
+0/-3  
30  
1000  
Q
30  
AND OVER : Q  
TEMPERATURE  
CYCLE  
25  
2~3  
30  
16  
×
CLASS  
LESS THAN 30 :Q 400 +20 C  
MAX.  
RATED TEMP.  
+3/-0  
δ
Tan  
TO SATISFY THE SPECIFIED  
INITIAL VALUE  
CLASS  
25  
2~3  
MEASURE AT ROOM TEMPERATURE  
AFTER COOLING FOR  
INSULATION  
TO SATISFY THE SPECIFIED  
RESISTANCE INITIAL VALUE  
±
CLASS : 24 2 Hr.  
±
CLASS : 48 4 Hr.  
- 21 -  
Multilayer Ceramic Capacitor - High Voltage  
CHARACTERISTIC GRAPH  
ELECTRICAL CHARACTERISTICS  
CAPACITANCE - TEMPERATURE CHARACTERISTICS  
10  
20  
0
X7R  
5
-20  
Δ
Δ
C0G  
RH  
SH  
TH  
C
C
0
-40  
-60  
-80  
%
%
-5  
UJ  
Y5V  
-10  
-60  
-20  
0
20  
60  
100  
140  
-60  
-20  
0
20 40  
80  
120  
Temperature(  
)
Temperature(  
)
CAPACITANCE - DC VOLTAGE CHARACTERISTICS  
CAPACITANCE CHANGE - AGING  
40  
20  
10  
0
C0G 50V  
0
C0G  
X7R  
-20  
Δ
C
Δ
C
50V  
X7R  
Y5V  
-10  
-40  
-60  
%
%
-20  
-30  
Y5V  
50V  
-80  
-100  
0
50 100  
1000  
10000  
0
5
10 15  
20  
25  
30 35  
40  
Time(Hr)  
DC V oltage(V dc)  
IMPEDANCE - FREQUENCY CHARACTERISTICS  
Ohm  
Ohm  
100  
C0G  
X7R/Y5V  
100  
10  
0.001  
0.01  
10  
1
0.1  
1
10pF  
100pF  
1000pF  
0.1  
0.1  
0.01  
0.01  
1MHz  
10MHz  
100MHz  
1GHz  
10GHz  
1MHz  
10MHz  
100MHz  
1GHz  
- 22 -  
Multilayer Ceramic Capacitor - High Voltage  
APPLICATION MANUAL  
Storage Condition  
Storage Environment  
The electrical characteristics of MLCCs were degraded by the environment of high temperature  
or humidity. Therefore, the MLCCs shall be stored in the ambient temperature and the relative  
humidity of less than 40  
and 70%, respectively. Guaranteed storage period is within 6 months  
from the outgoing date of delivery.  
Corrosive Gases  
Since the solderability of the end termination in MLCC was degraded by a chemical atmosphere  
such as chlorine, acid or sulfide gases, MLCCs must be avoid from these gases.  
Temperature Fluctuations  
Since dew condensation may occur by the differences in temperature when the MLCCs are  
taken out of storage, it is important to maintain the temperature-controlled environment.  
Design of Land Pattern  
When designing printed circuit boards, the shape and size of the lands must allow for the  
proper amount of solder on the capacitor. The amount of solder at the end terminations has a  
direct effect on the crack. The crack in MLCC will be easily occurred by the tensile stress which  
was due to too much amount of solder. In contrast, if too little solder is applied, the termination  
strength will be insufficiently. Use the following illustrations as guidelines for proper land design.  
Recommendation of Land Shape and Size  
Solder Resist  
Solder Resist  
T
W
b
a
Solder  
Land  
2/3W < b < W  
2/3T < a < T  
Adhesives  
When flow soldering the MLCCs, apply the adhesive in accordance with the following conditions.  
Requirements for Adhesives  
They must have enough adhesion, so that, the chips will not fall off or move during the  
handling of the circuit board.  
They must maintain their adhesive strength when exposed to soldering temperature.  
They should not spread or run when applied to the circuit board.  
They should harden quickly.  
They should not corrode the circuit board or chip material.  
- 23 -  
Multilayer Ceramic Capacitor - High Voltage  
They should be a good insulator.  
They should be non-toxic, and not produce harmful gases, nor be harmful when touched.  
Application Method  
It is important to use the proper amount of adhesive. Too little and much adhesive will cause  
poor adhesion and overflow into the land, respectively.  
Adhesive hardening Characteristics  
To prevent oxidation of the terminations, the adhesive must harden at 160 or less, within  
2 minutes or less.  
Mounting  
Mounting Head Pressure  
Excessive pressure will cause crack to MLCCs. The pressure of nozzle will be 300g maximum  
during mounting.  
Bending Stress  
When double-sided circuit boards are used, MLCCs first are mounted and soldered onto one side  
of the board. When the MLCCs are mounted onto the other side, it is important to support the  
board as shown in the illustration. If the circuit board is not supported, the crack occur to the  
ready-installed MLCCs by the bending stress.  
nozzle  
force  
support pin  
Flux  
Although the solderability increased by the highly-activated flux, increase of activity in flux may  
also degrade the insulation of the chip capacitors. To avoid such degradation, it is recommended  
that a mildly activated rosin flux(less than 0.2% chlorine) be used.  
- 24 -  
Multilayer Ceramic Capacitor - High Voltage  
Soldering  
Since a multilayer ceramic chip capacitor comes into direct contact with melted solder during  
soldering, it is exposed to potentially mechanical stress caused by the sudden temperature  
change. The capacitor may also be subject to silver migration, and to contamination by the  
flux. Because of these factors, soldering technique is critical.  
Soldering Methods  
Method  
Classification  
- Infrared rays  
- Hot plate  
- VPS(vapor phase)  
- Overall heating  
- Local heating  
Reflow  
soldering  
- Air heater  
- Laser  
- Light beam  
- Single wave  
- Double wave  
Flow  
soldering  
-
* We recommend the reflow soldering method.  
Soldering Profile  
To avoid crack problem by sudden temperature change, follow the temperature profile in the  
adjacent graph.  
preheating  
soldering  
cooling  
preheating  
soldering  
cooling  
300  
300  
250  
200  
150  
250  
200  
150  
△ ≤  
T
150  
100  
50  
100  
50  
60~120sec 10~20sec  
60~120sec  
3~4sec  
Flow Soldering  
Reflow Soldering  
Manual Soldering  
Manual soldering can pose a great risk of creating thermal cracks in chip capacitors. The hot  
soldering iron tip comes into direct contact with the end terminations, and operator's carelessness  
may cause the tip of the soldering iron to come into direct contact with the ceramic body of  
the capacitor. Therefore the soldering iron must be handled carefully, and close attention must  
be paid to the selection of the soldering iron tip and to temperature control of the tip.  
- 25 -  
Multilayer Ceramic Capacitor - High Voltage  
Amount of Solder  
Too much  
Cracks tend to occur due  
to large stress  
Solder  
Weak holding force may  
cause bad connections or  
detaching of the capacitor  
Not enough  
Solder  
Good  
Cooling  
Natural cooling using air is recommended. If the chips are dipped into solvent for cleaning,  
the temperature difference( T) must be less than 100  
6-6. Cleaning  
If rosin flux is used, cleaning usually is unnecessary. When strongly activated flux is used,  
chlorine in the flux may dissolve into some types of cleaning fluids, thereby affecting the chip  
capacitors. This means that the cleaning fluid must be carefully selected, and should always  
be new.  
Notes for Separating Multiple, Shared PC Boards.  
A multi-PC board is separated into many individual circuit boards after soldering has been  
completed. If the board is bent or distorted at the time of separation, cracks may occur in the  
chip capacitors. Carefully choose a separation method that minimizes the bending of the  
circuit board.  
- 26 -  
Multilayer Ceramic Capacitor - High Voltage  
CROSS REFERENCE  
TAIYO  
P/N  
COMPANY  
SAMSUNG  
AVX  
-
JOHANSON KEMET  
KYOCERA  
MURATA  
GRM  
33  
NOVACAP  
-
PANASONIC  
ROHM  
TDK  
C
VITRAMON  
VJ  
-
YUDEN  
CL  
03  
05  
10  
21  
31  
32  
42  
43  
55  
-
C
CM  
03  
ECJ  
MCH  
-
MK  
COMPANY MODEL(MLCC)  
-
-
-
-
Z
0
1
2
3
4
-
063  
105  
107  
212  
316  
325  
-
0603  
1005  
1608  
2012  
3216  
3225  
4520  
4532  
5650  
-
0201(0603)  
0402(1005)  
0603(1608)  
0805(2012)  
1206(3216)  
1210(3225)  
1808(4520)  
1812(4532)  
2220(5750)  
0402  
0603  
0805  
1206  
1210  
1808  
1812  
-
R07  
R14  
R15  
R18  
S41  
R29  
S43  
-
0402  
0603  
0805  
1206  
1210  
1808  
1812  
2220  
05  
36  
0402  
0603  
0805  
1206  
1210  
1808  
1812  
2221  
15  
18  
21  
31  
32  
-
0402  
0603  
0805  
1206  
1210  
1808  
1812  
-
105  
21  
39  
40  
SIZE  
316  
32  
42-6  
42-2  
-
(EIA/JIS)  
42  
43  
43-2  
44-1  
-
43  
-
432  
550  
55  
-
C
A
N
G
CG  
COG/CH  
N
C
A
C
COG/CH  
A
COG(NPO)  
P
R
S
T
U
L
S
1
-
-
-
P
R
P2H  
R2H  
S2H  
T2H  
U2J  
SL  
-
-
P
R
S
T
U
G
B
-
-
-
P
R
PH  
RH  
-
P2H(N150)  
R2H(N220)  
S2H(N330)  
T2H(N470)  
U2J(N750)  
S2L  
-
-
3
-
-
S
-
-
S
SH  
-
O
Z
Y
C
E
-
-
T
-
-
T
TH  
-
TEMPERATURE  
-
-
-
U
-
UJ  
SL  
C
E
U
UJ  
-
-
CHARACTERISTIC  
-
SL  
X7R  
-
-
SL  
BJ  
-
SL  
B
E
W
Z
R(X)  
U
X7R  
Z5U  
B
Z
X7R(B)  
Z5U  
Y(X)  
U
X7R  
Z5U  
F
G
Y
V
Y5V  
Y5V  
Y
F
F
F
Y5V  
-
Y5V  
225=2,200,000 =2.2  
010=1  
EX) 103=10,000  
221=220  
1R5=1.5  
NOMINAL CAPACITANCE  
CAPACITANCE TOLERANCE  
6.3V  
±
±
±
D: 0.5  
±
±
±
J: 5%  
±
±
B: 0.1  
C: 0.25  
F: 1%  
6.3  
G: 2%  
K: 10%  
M: 20%  
Z:-20~+80%  
Q
P
O
A
B
C
D
E
G
H
I
6
Z
Y
3
5
1
2
V
7
-
-
9
06  
-
-
0J  
-
J
L
E
T
U
-
0J  
1A  
1C  
1E  
1H  
2A  
-
-
-
100  
160  
250  
500  
101  
201  
-
8
4
3
5
1
2
-
10  
16  
10  
16  
1A  
4
10  
16  
V
V
V
V
160  
250  
500  
101  
201  
251  
501  
-
1C  
3
J
25  
25  
1E  
2
X
A
B
C
-
25  
50  
50  
1H  
5
50  
100  
200  
250  
500  
630  
1000  
2000  
3000  
4000  
A
100  
200  
250  
500  
630  
1K  
2A  
1
100  
V
2D  
-
-
200V  
250V  
RATED  
VOLTAGE  
-
-
-
2E  
-
501  
-
-
-
-
-
E
-
500V  
-
-
-
-
2J  
3A  
3D  
3F  
-
630V  
A
G
H
J
102  
202  
302  
-
102  
202  
302  
402  
N
-
-
-
G
-
1000V  
J
-
2K  
-
-
-
2000V  
K
-
-
3K  
-
-
-
H
-
3000V  
-
-
-
-
(MCH)  
(MC)  
-
-
4000V  
N
P
B
C
E
P
T
1
9
V
C
-
(GRM)  
(GR)  
PB  
-
-
-
X
F
B
NICKEL BARRIER  
Ag/Pd  
TERMINATION  
-
B
P
-
X
-
-
(NONE)  
-
B
*
B
T
T
-
B
BULK(VINYL)  
PAPER TAPING  
PLASTIC TAPING  
BULK CASE  
2,  
1,  
4
3
T,  
E,  
R
U
-
T,  
L
PT  
T
E,V,W  
K,  
P,  
L
T
C,  
T,  
P
R
PACKAGE  
-
H,  
N
PT  
-
F,  
Y
Q
-
7
-
-
C
PC  
-
C
C
-
G
- 27 -  
Multilayer Ceramic Capacitor - High Voltage  
SAMSUNG : CL10B104KA8NNNC  
CL  
10  
B
104  
K
A
8
N
N
N
C
Size  
Dielectric Capacitance  
Tolerance  
Series  
Voltage  
Thickness  
Electrode/  
Termination/  
Plating  
Products  
Special  
Packaging  
±
A = 0.05pF  
C = C0G  
P = P2H  
R = R2H  
S = S2H  
T = T2H  
U = U2H  
L = S2L  
B = X7R  
A = X5R  
F = Y5V  
2
Q = 6.3V  
P = 10V  
O = 16V  
A = 25V  
B = 50V  
C = 100V  
D = 200V  
E = 250V  
G = 500V  
H = 630V  
I = 1000V  
3 = 0.30  
5 = 0.50  
8 = 0.80  
A = 0.65  
C = 0.85  
H = 1.60  
I = 2.00  
J = 2.50  
L = 3.20  
A = Array  
Various  
B = Bulk  
03 = 0201  
05 = 0402  
10 = 0603  
21 = 0805  
31 = 1206  
32 = 1210  
43 = 1812  
55 = 2220  
±
B = 0.1pF  
significant  
figures  
(2-element)  
B = Array  
(4-element)  
P = Cassette  
C = Paper 7"  
D = Paper 13"  
(10,000EA)  
±
C = 0.25pF  
A = Pd/Ag/  
Sn 100%  
±
D = 0.5pF  
+
±
F = 1%  
number  
of zeros  
Use "R" for  
N = Ni/Cu/  
Sn 100%  
C = High - Q  
L = LICC  
±
G = 2%  
E = Embossing 7"  
F = Embossing 13"  
L = Paper 13"  
(15,000EA)  
±
J = 5%  
G = Cu/Cu/  
Sn 100%  
N = Normal  
P = Automotive  
W = 3 terminal  
chip  
±
decimal point K = 10%  
±
M = 20%  
Z = +80,-20%  
O = Paper 10"  
S = Embossing 10"  
AVX : 06033C104KAT2A  
0603  
3
C
104  
K
A
T
2
A
Packaging  
Voltage  
Tolerance  
Special  
Failure Rate  
Termination  
Size  
Dielectric  
Capacitance  
2 = 7" Reel  
4 = 13" Reel  
7 = Cassette  
9 = Bulk  
±
4 = 4V  
B = 0.1pF  
A = Standard  
T = 0.66mm  
S = 0.56mm  
R = 0.46mm  
A = N/A  
T = Sn 100%  
7 = Gold Plated  
1 = Pd/Ag  
A = C0G  
C = X7R  
D = X5R  
E = Z5U  
G = Y5V  
2
0201  
0402  
0603  
0805  
1206  
1210  
1812  
2220  
2225  
±
C = 0.25pF  
6 = 6.3V  
Z = 10V  
Y = 16V  
3 = 25V  
B = 50V  
C = 100V  
D = 200V  
E = 250V  
G = 500V  
I = 1000V  
significant  
figures  
+
±
D = 0.5pF  
±
F = 1%  
±
G = 2%  
number  
of zeros  
Use "R" for  
decimal  
point  
±
J = 5%  
±
K = 10%  
±
M = 20%  
Z = +80, -20%  
P = GMV,+100,-0%  
JOHANSON : 250R14W104KV6T  
250  
R14  
W
104  
K
V
6
T
Tolerance  
Capacitance  
Termination  
Marking  
Packaging  
Voltage  
Size  
Dielectric  
±
B = 0.1pF  
2
V = Ni Barrier  
4 = No Mark  
6 = Marking  
E = 7" Reel Plastic  
T = 7" Reel Paper  
R = 13" Reel Paper  
U = 13" Reel Plastic  
None = Bulk  
2
N = C0G  
W = X7R  
X = X5R  
Z = Z5U  
Y = Y5V  
R07 = 0402  
R14 = 0603  
R15 = 0805  
R18 = 1206  
S41 = 1210  
S43 = 1812  
S47 = 2220  
S48 = 2225  
S49 = 1825  
S54 = 3640  
±
C = 0.25pF  
significant  
figures  
significant  
figures  
+
±
D = 0.5pF  
±
F = 1%  
+
±
G = 2%  
number  
of zeros  
Use "R" for  
decimal point  
number  
of zeros  
±
J = 5%  
±
K = 10%  
±
M = 20%  
Z = +80, -20%  
P = GMV,+100,-0%  
KEMET : C0603C104K3RAC  
C
0603  
C
104  
K
3
R
A
C
Termination  
Failure Rate  
Series  
Size  
Specification  
Capacitance  
Tolerance  
Voltage  
Dielectric  
C = Ni w/Tin Plate  
H = Ni w/Solder  
T = Silver  
±
A = Standard  
M = 1.0 (Mil)  
P = 0.1 (Mil)  
R = 0.01 (Mil)  
S = 0.001 (Mil)  
2
B = 0.1pF  
9 = 6.3V  
8 = 10V  
4 = 16V  
3 = 25V  
5 = 50V  
1 = 100V  
2 = 200V  
G = C0G  
R = X7R  
P = X5R  
U = Z5U  
X = BX(Mil)  
V = Y5V  
0402  
0603  
0805  
1206  
1210  
1812  
2220  
2225  
C = Standard  
±
C = 0.25pF  
significant  
figures  
A = GR900  
±
D = 0.5pF  
P = Mil-C-55681  
CDR01-CDR06  
N = Mil-C-55681  
CDR31-CDR35  
Z = Mil-C-123  
E = Mil Equivalent  
(Group A Only)  
G = Gold Plated  
±
F = 1%  
+
±
G = 2%  
number  
of zeros  
Use "R" for  
decimal point  
±
J = 5%  
±
K = 10%  
±
M = 20%  
Z = +80, -20%  
P = +100, 0%  
- 28 -  
Multilayer Ceramic Capacitor - High Voltage  
KYOCERA : CM105X7R104K25AT  
CM  
105  
X7R  
104  
K
25  
A
T
Series  
Dielectric  
Capacitance  
Tolerance  
Voltage  
Termination  
Packaging  
Size  
±
CG  
X8R  
X7R  
X5R  
Z5U  
Y5V  
Y5U  
2
B = 0.1pF  
04 = 4V  
A = Ni Barrier  
T = 7" Reel (4mm Pitch)  
L = 13" Reel (4mm Pitch)  
H = 7" Reel (2mm Pitch)  
N = 13" Reel (2mm Pitch)  
B = Bulk (Vinyl Bags)  
C = Bulk Cassette  
03 = 0201  
05 = 0402  
105 = 0603  
21 = 0805  
316 = 1206  
32 = 1210  
42 = 1808  
43 = 1812  
55 = 2220  
±
significant  
figures  
C = 0.25pF  
06 = 6.3V  
10 = 10V  
±
D = 0.5pF  
±
+
F = 1%  
16 = 16V  
±
number  
of zeros  
Use "R" for  
decimal point  
G = 2%  
25 = 25V  
±
J = 5%  
50 = 50V  
±
K = 10%  
100 = 100V  
250 = 250V  
500 = 500V  
1000 = 1000V  
±
M = 20%  
Z = +80, -20%  
P = +100, 0%  
MURATA : GRM188R71E104KA01D  
GRM  
18  
8
R7  
1E  
104  
K
A01  
D
Size  
Thickness  
Dielectric  
Voltage  
Capacitance  
Tolerance  
Individual  
Packaging  
Series  
Specification  
Code  
±
3 = 0.3mm  
5 = 0.5mm  
8 = 0.8mm  
A = 1.0mm  
B = 1.25mm  
C = 1.6mm  
D = 2.0mm  
E = 2.5mm  
F = 3.2mm  
5C = C0G  
R7 = X7R  
R6 = X5R  
E4 = Z5U  
F5 = Y5V  
0J = 6.3V  
1A = 10V  
1C = 16V  
1E = 25V  
1H = 50V  
2A = 100V  
2E = 250V  
2H = 500V  
3A = 1000V  
2
B = 0.1pF  
D = 7" Reel Paper  
L = 7" Reel Plastic  
J = 13" Reel Paper  
K = 13" Reel Plastic  
B = Bulk  
Ni Barrier  
03 = 0201  
15 = 0402  
18 = 0603  
21 = 0805  
31 = 1206  
32 = 1210  
42 = 1808  
43 = 1812  
55 = 2220  
±
C = 0.25pF  
significant  
figures  
+
±
D = 0.5pF  
±
F = 1%  
±
G = 2%  
number  
of zeros  
Use "R" for  
decimal  
point  
±
J = 5%  
C = Bulk Cassette  
T = Bulk Tray  
±
K = 10%  
±
M = 20%  
Z = +80,-20%  
P = +100, 0%  
NOVACAP : 0603B104K250N_TM  
1206  
B
104  
K
250  
Voltage  
N
-
T
M
Dielectric  
Capacitance  
Tolerance  
Termination  
Thickness  
Packaging  
Marking  
Size  
±
N = C0G  
B = X7R  
X = BX  
2
B = 0.1pF  
2
P = Pd/Ag  
N = Ni Barrier  
(Sn 100%)  
Y = Ni Barrier  
(Sn/Pb)  
Per Specified  
T = Reel  
0402  
0603  
0805  
1005  
1206  
1210  
1808  
1812  
2220  
±
significant  
figures  
C = 0.25pF  
significant  
figures  
+
None = Bulk  
±
D = 0.5pF  
W = Waffle Pack  
±
F = 1%  
Z = Z5U  
Y = Y5V  
+
±
number  
of zeros  
Use "R" for  
decimal point  
G = 2%  
number  
of zeros  
±
J = 5%  
±
K = 10%  
±
M = 20%  
Z = +80,-20%  
P = +100,  
0%  
PANASONIC : ECJ1EB1E104K  
ECJ  
1
E
B
1E  
104  
K
Series  
Size  
Packaging  
Dielectric  
Voltage  
Capacitance  
Tolerance  
±
C = 0.25pF  
X = Bulk  
C = C0G  
0J = 6.3V  
1A = 10V  
1C = 16V  
1E = 25V  
1H = 50V  
2A = 100V  
2D = 200V  
2
Z = 0201  
0 = 0402  
1 = 0603  
2 = 0805  
3 = 1206  
4 = 1210  
±
D = 0.5pF  
E = Paper 2mm  
B = X7R, X5R  
F = Y5V  
significant  
figures  
±
F = 1%  
V = Paper 4mm  
±
J = 5%  
F, Y = Plastic 4mm  
W = Large Reels 2mm  
Z = Large Reels 4mm  
C = Bulk Cassette  
+
±
K = 10%  
number  
of zeros  
Use "R" for  
decimal point  
±
M = 20%  
Z = +80, -20%  
- 29 -  
Multilayer Ceramic Capacitor - High Voltage  
ROHM : MCH182C104KKN  
MCH  
18  
2
C
104  
K
K
N
Series  
Size  
Voltag  
e
Dielectric  
Capacitance  
Tolerance  
Packaging  
Marking/Thickness  
±
A = C0G  
C = X7R  
F = Y5V  
2
B = 0.1pF  
K = 7" Reel Paper  
P = 7" Reel Plastic  
L = 13" Reel Paper  
Q = 13" Reel Plastic  
B = Bulk  
N = Marked  
15 = 0402  
18 = 0603  
21 = 0805  
31 = 1206  
32 = 1210  
43 = 1812  
±
4 = 10V  
3 = 16V  
2 = 25V  
5 = 50V  
significant  
figures  
C = 0.25pF  
Special Thickness  
±
D = 0.5pF  
±
F = 1%  
+
±
G = 2%  
number  
of zeros  
Use "R" for  
decimal point  
±
J = 5%  
C = Bulk Cassette  
±
K = 10%  
±
M = 20%  
Z = +80,-20%  
P = +100, 0%  
TAIYO-YUDEN : TMK107BJ104K_T  
T
M
K
107  
BJ  
104  
K
-
T
Size  
Voltage  
Type  
Termination  
Dielectric  
Capacitance  
Tolerance  
Special  
Packaging  
A = 4V  
±
M = Multilayer  
V = Hi Q  
K = Ni Barrier  
CG = C0G  
CH = C0H  
CJ = C0J  
CK = C0K  
BJ = X5R,  
X7R  
2
C = 0.25pF  
Various  
T = Reel  
B = Bulk  
105 = 0402  
107 = 0603  
212 = 0805  
316 = 1206  
325 = 1210  
432 = 1812  
550 = 2220  
J = 6.3V  
L = 10V  
E = 16V  
T = 25V  
U = 50V  
±
D = 0.5pF  
significant  
figures  
±
F = 1%  
±
G = 2%  
+
±
J = 5%  
number  
of zeros  
Use "R" for  
decimal point  
±
K = 10%  
±
F = Y5V  
M = 20%  
Z = +80,-20%  
TDK : C1608X7R1E104KT  
C
1608  
X7R  
1E  
104  
K
T
Series  
Dielectric  
Voltage  
Size  
Capacitance  
Tolerance  
Packaging  
CG  
0J = 6.3V  
1A = 10V  
1C = 16V  
1E = 25V  
1H = 50V  
±
2
C = 0.25pF  
T = Reel  
B = Bulk  
0603 = 0201  
1005 = 0402  
1608 = 0603  
2012 = 0805  
3216 = 1206  
3225 = 1210  
4532 = 1812  
5650 = 2220  
X7R  
Z5U  
Y5V  
±
D = 0.5pF  
significant  
figures  
±
F = 1%  
±
G = 2%  
+
±
J = 5%  
number  
of zeros  
Use "R" for  
decimal point  
±
K = 10%  
±
M = 20%  
Z = +80, -20%  
VITRAMON : VJ0603Y104KXXMC  
VJ  
0603  
Y
104  
K
X
X
M
C
Packaging  
Series  
Size  
Dielectric  
Capacitance  
Tolerance  
Termination  
Voltage  
Marking  
±
C = 7" Reel Paper  
T = 7" Reel Plastic  
P = 13" Reel Paper  
R = 13" Reel Plastic  
B = Bulk  
X = BX  
2
B = 0.1pF  
X = Silver,  
Ni Barrier  
Tin Plated  
J = 16V  
X = 25V  
A = 50V  
B = 100V  
C = 200V  
M = Marking  
0402  
0603  
0805  
1206  
1210  
1812  
2225  
±
C = 0.25pF  
A,N = C0G  
Y = X7R  
U = Z5U  
H = X8R  
significant  
figures  
A = No Marking  
±
D = 0.5pF  
±
F = 1%  
+
±
G = 2%  
number  
of zeros  
Use "R" for  
decimal point  
±
J = 5%  
±
K = 10%  
±
M = 20%  
Z = +80, -20%  
P = +100, 0%  
- 30 -  

相关型号:

SI9130DB

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SI9135LG-T1

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SI9135LG-T1-E3

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SI9135_11

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SI9136_11

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SI9130CG-T1-E3

Pin-Programmable Dual Controller - Portable PCs

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SI9130LG-T1-E3

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SI9137

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SI9137LG

Multi-Output, Sequence Selectable Power-Supply Controller for Mobile Applications

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SI9122E

500-kHz Half-Bridge DC/DC Controller with Integrated Secondary Synchronous Rectification Drivers

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