135D336X0075F6E3 - Vishay Presicion Group

135D

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Revision: 31-Jan-12 1Document Number: 40024

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Wet Tantalum Capacitors Tantalum-Case with Glass-to-Tantalum

Hermetic Seal for - 55 °C to + 200 °C Operation

FEATURES

• Terminations: Standard tin/lead (SnPb),

100 % tin (RoHS compliant) available

• Standard and extended ratings

• Model 135D tantalum-case electrolytic

capacitors incorporate the advantages of all

the varieties of electrolytic capacitors and

eliminate most of the disadvantages. These units have a

3 V reverse voltage capability at + 85 °C and a higher

ripple current capability than any other electrolytic type

with similar combinations of capacitance and case size.

• Designed for the aerospace applications, this capacitor

was developed under partial sponsorship of the Marshall

Space Flight Center, National Aeronautics and Space

Administration. The capacitors have a high resistance to

damage from shock and vibration. Extended range ratings

and high temperature designs are available.

• Model 135D capacitors are commercial equivalents of

Tansitor Style; AQ, AR, HAQ, HAR, Mallory-NACC Style;

TLT, TXT, THT, THX and Military Style CLR79 and CLR81,

designed to meet the performance requirements of

Military Specification MIL-PRF-39006/22/25. Capacitors

to meet MIL-PRF- 39006/22/25 should be ordered by part

numbers shown in that specification.

• Compliant to RoHS Directive 2002/95/EC

• Mounting: Axial

Note

*Pb containing terminations are not RoHS compliant, exemptions

may apply

PERFORMANCE CHARACTERISTICS

Operating Temperature: - 55 °C to + 85 °C

(to + 200 °C with voltage derating)

Capacitance Tolerance: At 120 Hz, + 25 °C

± 20 % standard. ± 10 %, ± 5 % available as special.

DC Leakage Current (DCL Max.): At + 25 °C and above:

Leakage current shall not exceed the values listed in the

Standard Ratings table.

Life Test: Capacitors are capable of withstanding a 2000 h

life test at a temperature of + 85 °C or + 125 °C at the

applicable rated DC working voltage.

Following life test:

1. DCL, measured at + 85 °C rated voltage, shall not be in

excess of the original requirement.

2. The equivalent series resistance shall not exceed 150 %

of the initial requirement.

3. Change in capacitance shall not exceed 10 % from the

initial measurement.

Note

• Packaging: The use of formed plastic trays for packaging these axial lead components is standard. Tape and reel is not recommended due

to the unit weight.

ORDERING INFORMATION

135D 306 X0 006 C 2 E3

MODEL CAPACITANCE CAPACITANCE

TOLERANCE

DC VOLTAGE RATING

AT + 85 °C

CASE

CODE

STYLE NUMBER RoHS

COMPLIANT

This is expressed

in picofarads. The

first two digits are

the significant

figures. The third

is the number of

zeros to follow.

X0 = ± 20 %

X9 = ± 10 %

X5 = ± 5 %

This is expressed in

volts. To complete the

three-digit block,

zeros precede the

voltage rating.

A decimal point is

indicated by an “R”.

(6R3 = 6.3 V)

See

Ratings

and

Case

Codes

table

Standard temperature

(max. + 125 °C)

0 = No insulating sleeve

2 = Polyester insulationsleeve

3 = High temperature

film insulation

High temperature

(max. + 200 °C)

6 = High temperature

film insulation

8 = No insulating sleeve

E3 = 100 % tin

termination

(RoHS compliant

design)

Blank = SnPb

termination

(standard design)

135D

www.vishay.com Vishay

Revision: 31-Jan-12 2Document Number: 40024

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THIS DOCUMENT IS SUBJECT TO CHANGE WITHOUT NOTICE. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT

ARE SUBJECT TO SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000

Note

• For insulated parts, add 0.015" [0.38] to the diameter. The insulation shall lap over the ends of the capacitor body.

DIMENSIONS in inches [millimeters]

CASE CODE

1L2

(max.) E

WEIGHT

(g)

(Max.)

TYPE

135D

DCLR 79/81

EQUIV.

C T1 0.188 ± 0.016

[4.78 ± 0.41]

0.453 + 0.031/- 0.016

[11.51 + 0.79/- 0.41]

0.734

[18.64]

1.500 ± 0.250

[38.10 ± 6.35] 2.6

F T2 0.281 ± 0.016

[7.14 ± 0.41]

0.641 + 0.031/- 0.016

[16.28 + 0.79/- 0.41]

0.922

[23.42]

2.250 ± 0.250

[57.15 ± 6.35] 6.2

T T3 0.375 ± 0.016

[9.53 ± 0.41]

0.766 + 0.031/- 0.016

[19.46 + 0.79/- 0.41]

1.047

[26.59]

2.250 ± 0.250

[57.15 ± 6.35] 11.6

K T4 0.375 ± 0.016

[9.53 ± 0.41]

1.062 + 0.031/- 0.016

[26.97 + 0.79/- 0.41]

1.343

[34.11]

2.250 ± 0.250

[57.15 ± 6.35] 17.7

STANDARD RATINGS

CAPACITANCE

(μF)

CASE

CODE PART NUMBER (1)

MAX. ESR

AT + 25 °C

120 Hz

()

MAX. IMP.

AT - 55 °C

120 Hz

()

MAX. DCL

(μA) AT

MAX. CAPACITANCE

CHANGE (%) AT

MAX.

RIPPLE

40 kHz

IRMS

(mA)

+ 25 °C + 85 °C

+ 125 °C - 55 °C + 85 °C + 125 °C

6 VDC AT + 85 °C; 4 VDC AT + 125 °C; 3.6 VDC AT + 200 °C

30 C 135D306X0006C2 4.0 100 1.0 2.0 - 40 + 10.5 + 12 820

68 C 135D686X0006C2 3.2 60 1.0 2.0 - 40 + 14 + 16 960

140 F 135D147X0006F2 2.0 40 1.0 3.0 - 40 + 14 + 16 1200

270 F 135D277X0006F2 2.2 25 1.0 6.5 - 44 + 17.5 + 20 1375

330 T 135D337X0006T2 1.4 20 2.0 7.9 - 44 + 14 + 16 1800

560 T 135D567X0006T2 1.3 25 2.0 13.0 - 64 + 17.5 + 20 1900

1200 K 135D128X0006K2 1.0 20 3.0 14.0 - 80 + 25 + 25 2265

8 VDC AT + 85 °C; 5 VDC AT + 125 °C; 4.8 VDC AT + 200 °C

25 C 135D256X0008C2 4.0 100 1.0 2.0 - 40 + 10.5 + 12 820

56 C 135D566X0008C2 3.3 59 1.0 2.0 - 40 + 14 + 16 900

120 F 135D127X0008F2 2.6 50 1.0 2.0 - 44 + 17.5 + 20 1230

220 F 135D227X0008F2 2.4 30 1.0 7.0 - 44 + 17.5 + 20 1370

290 T 135D297X0008T2 1.8 25 2.0 6.0 - 64 + 17.5 + 20 1770

430 T 135D437X0008T2 1.4 25 2.0 14.0 - 64 + 17.5 + 20 1825

850 K 135D857X0008K2 1.0 22 4.0 16.0 - 80 + 25 + 25 2330

10 VDC AT + 85 °C; 7 VDC AT + 125 °C; 6 VDC AT + 200 °C

20 C 135D206X0010C2 4.0 120 1.0 2.0 - 32 + 10.5 + 12 820

47 C 135D476X0010C2 3.7 90 1.0 2.0 - 36 + 14 + 16 855

100 F 135D107X0010F2 2.4 60 1.0 4.0 - 36 + 14 + 16 1200

180 F 135D187X0010F2 2.2 40 1.0 7.0 - 36 + 14 + 16 1365

250 T 135D257X0010T2 1.8 30 2.0 10.0 - 40 + 14 + 16 1720

390 T 135D397X0010T2 1.5 25 2.0 16.0 - 64 + 17.5 + 20 1800

750 K 135D757X0010K2 1.0 23 4.0 16.0 - 80 + 25 + 25 2360

Note

(1) Part numbers are for units with ± 20 % capacitance tolerance, standard + 125 °C maximum temperature, standard polyesterfilm insulation,

and tin-lead terminations. For other capacitance tolerances, other maximum temperatures, insulation and termination options, please

consult Ordering Information on first page for proper part number.

0.0253 ± 0.002 [0.64 ± 0.05] dia.

(no. 22 AWG) tinned nickel leads

solderable and weldable

Tantalum

Weld

135D

www.vishay.com Vishay

Revision: 31-Jan-12 3Document Number: 40024

For technical questions, contact: tantalum@vishay.com

THIS DOCUMENT IS SUBJECT TO CHANGE WITHOUT NOTICE. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT

ARE SUBJECT TO SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000

15 VDC AT + 85 °C; 10 VDC AT + 125 °C; 9 VDC AT + 200 °C

15 C 135D156X0015C2 4.4 155 1.0 2.0 - 24 + 10.5 + 12 780

33 C 135D336X0015C2 4.0 90 1.0 2.0 - 28 + 14 + 16 820

70 F 135D706X0015F2 2.8 75 1.0 4.0 - 28 + 14 + 16 1150

120 F 135D127X0015F2 2.6 50 1.0 7.0 - 28 + 17.5 + 20 1450

170 T 135D177X0015T2 2.4 35 2.0 10.0 - 32 + 14 + 16 1480

270 T 135D277X0015T2 2.2 30 2.0 16.0 - 56 + 17.5 + 20 1740

540 K 135D547X0015K2 1.0 23 6.0 24.0 - 80 + 25 + 25 2330

25 VDC AT + 85 °C; 15 VDC AT + 125 °C; 12 VDC AT + 200 °C

10 C 135D106X0025C2 5.3 220 1.0 2.0 - 16 + 8 + 9 715

22 C 135D226X0025C2 4.2 140 1.0 2.0 - 20 + 10.5 + 12 800

50 F 135D506X0025F2 3.0 70 1.0 2.0 - 28 + 13 + 15 1130

100 F 135D107X0025F2 2.8 50 1.0 10.0 - 28 + 13 + 15 1435

120 T 135D127X0025T2 2.6 38 2.0 6.0 - 32 + 13 + 15 1450

180 T 135D187X0025T2 2.2 32 2.0 18.0 - 48 + 13 + 15 1525

350 K 135D357X0025K2 1.3 24 7.0 28.0 - 70 + 25 + 25 1970

30 VDC AT + 85 °C; 20 VDC AT + 125 °C; 18 VDC AT + 200 °C

8 C 135D805X0030C2 6.6 275 1.0 2.0 - 16 + 8 + 12 640

15 C 135D156X0030C2 6.2 175 1.0 2.0 - 20 + 10.5 + 12 780

22 F 135D226X0030F2 4.6 95 1.0 5.0 - 20 + 10.5 + 12 1005

40 F 135D406X0030F2 4.0 65 1.0 5.0 - 24 + 10.5 + 12 1120

68 F 135D686X0030F2 2.9 60 1.0 8.0 - 24 + 13 + 15 1285

100 T 135D107X0030T2 2.7 40 2.0 12.0 - 28 + 10.5 + 12 1450

150 T 135D157X0030T2 2.3 35 2.0 18.0 - 48 + 13 + 15 1525

300 K 135D307X0030K2 1.4 25 8.0 32.0 - 60 + 25 + 25 1950

35 VDC AT + 85 °C; 22 VDC AT + 125 °C; 21 VDC AT + 200 °C

15 C 135D156X0035C2 6.2 175 0.75 1.5 - 20 + 10.5 + 12 660

68 F 135D686X0035F2 2.9 60 1.0 2.0 - 24 + 13 + 15 1195

270 K 135D277X0035K2 1.4 26 3.0 12.0 - 58 + 25 + 25 1950

50 VDC AT + 85 °C; 30 VDC AT + 125 °C; 30 VDC AT + 200 °C

5 C 135D505X0050C2 8.0 400 1.0 2.0 - 16 + 5 + 6 580

10 C 135D106X0050C2 6.4 250 1.0 2.0 - 24 + 8 + 9 715

25 F 135D256X0050F2 4.6 95 1.0 5.0 - 20 + 10.5 + 12 1005

47 F 135D476X0050F2 3.7 70 1.0 9.0 - 28 + 13 + 15 1155

60 T 135D606X0050T2 2.9 45 2.0 12.0 - 16 + 10.5 + 12 1335

82 T 135D826X0050T2 2.5 45 2.0 16.0 - 32 + 13 + 15 1400

160 K 135D167X0050K2 1.5 27 8.0 32.0 - 50 + 25 + 25 1900

60 VDC AT + 85 °C; 40 VDC AT + 125 °C; 36 VDC AT + 200 °C

4 C 135D405X0060C2 9.3 550 1.0 2.0 - 16 + 5 + 6 525

8.2 C 135D825X0060C2 6.6 275 1.0 2.0 - 24 + 8 + 9 625

20 F 135D206X0060F2 4.7 105 1.0 5.0 - 16 + 8 + 9 930

39 F 135D396X0060F2 3.4 90 1.0 9.0 - 28 + 10.5 + 15 1110

50 T 135D506X0060T2 2.9 50 2.0 12.0 - 16 + 10.5 + 12 1330

68 T 135D686X0060T2 2.5 50 2.0 16.0 - 32 + 10.5 + 15 1365

140 K 135D147X0060K2 1.5 28 8.0 32.0 - 40 + 20 + 20 1850

75 VDC AT + 85 °C; 50 VDC AT + 125 °C; 45 VDC AT + 200 °C

3.5 C 135D355X0075C2 9.5 650 1.0 2.0 - 16 + 5 + 6 525

6.8 C 135D685X0075C2 6.8 300 1.0 2.0 - 20 + 8 + 9 610

15 F 135D156X0075F2 5.3 150 1.0 5.0 - 16 + 8 + 9 890

33 F 135D336X0075F2 4.2 90 1.0 10.0 - 24 + 10.5 + 15 1000

40 T 135D406X0075T2 3.0 60 2.0 12.0 - 16 + 10.5 + 12 1250

56 T 135D566X0075T2 2.6 60 2.0 17.0 - 28 + 10.5 + 15 1335

110 K 135D117X0075K2 1.5 29 9.0 36 .0 - 35 + 20 + 20 1850

STANDARD RATINGS

CAPACITANCE

(μF)

CASE

CODE PART NUMBER (1)

MAX. ESR

AT + 25 °C

120 Hz

()

MAX. IMP.

AT - 55 °C

120 Hz

()

MAX. DCL

(μA) AT

MAX. CAPACITANCE

CHANGE (%) AT

MAX.

RIPPLE

40 kHz

IRMS

(mA)

+ 25 °C + 85 °C

+ 125 °C - 55 °C + 85 °C + 125 °C

Note

(1) Part numbers are for units with ± 20 % capacitance tolerance, standard + 125 °C maximum temperature, standard polyesterfilm insulation,

and tin-lead terminations. For other capacitance tolerances, other maximum temperatures, insulation and termination options, please

consult Ordering Information on first page for proper part number.

135D

www.vishay.com Vishay

Revision: 31-Jan-12 4Document Number: 40024

For technical questions, contact: tantalum@vishay.com

THIS DOCUMENT IS SUBJECT TO CHANGE WITHOUT NOTICE. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT

ARE SUBJECT TO SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000

100 VDC AT + 85 °C; 65 VDC AT + 125 °C; 60 VDC AT + 200 °C

2.2 C 135D225X0100C2 10.6 950 1.0 2.0 - 16 + 7 + 8 505

2.5 C 135D255X0100C2 10.6 950 1.0 2.0 - 16 + 7 + 8 505

3.9 C 135D395X0100C2 10.0 600 1.0 2.0 - 16 + 7 + 8 520

4.7 C 135D475X0100C2 8.5 500 1.0 2.0 - 16 + 7 + 8 565

11 F 135D116X0100F2 6.0 200 1.0 4.0 - 16 + 7 + 8 835

22 F 135D226X0100F2 4.8 100 1.0 9.0 - 16 + 7 + 8 965

30 T 135D306X0100T2 3.3 80 2.0 12.0 - 16 + 7 + 8 1240

43 T 135D436X0100T2 2.6 70 2.0 17.0 - 20 + 7 + 8 1335

82 K 135D826X0100K2 1.6 39 3.0 24 - 24 + 18 + 18 1860

86 K 135D866X0100K2 1.6 30 9.0 36.0 - 25 + 15 + 15 1800

125 VDC AT + 85 °C; 85 VDC AT + 125 °C; 75 VDC AT + 200 °C

1.7 C 135D175X0125C2 15.6 1250 1.0 2.0 - 16 + 7 + 8 415

3.6 C 135D365X0125C2 10.0 600 1.0 2.0 - 16 + 7 + 8 520

9 F 135D905X0125F2 7.4 240 1.0 5.0 - 16 + 7 + 8 755

14 F 135D146X0125F2 5.7 167 1.0 7.0 - 16 + 7 + 8 860

18 T 135D186X0125T2 3.7 129 2.0 9.0 - 16 + 7 + 8 1130

25 T 135D256X0125T2 3.2 93 2.0 13.0 - 16 + 7 + 8 1200

56 K 135D566X0125K2 1.6 32 10.0 40.0 - 25 + 15 + 15 1800

EXTENDED RATINGS

CAPACITANCE

(μF) CASE CODE PART NUMBER (1)

MAX. ESR

AT + 25 °C

120 Hz

()

MAX. IMP.

AT - 55 °C

120 Hz

()

MAX. DCL

(μA) AT

MAX. CAPACITANCE

CHANGE (%) AT

MAX.

RIPPLE

40 kHz

IRMS

(mA)

+ 25 °C + 85 °C

+ 125 °C - 55 °C + 85 °C + 125 °C

6 VDC AT + 85 °C; 4 VDC AT + 125 °C; 3.6 VDC AT + 200 °C

220 C 135D227X0006C2 3.0 36 2 9 - 64 + 13 + 16 1000

560 F 135D567X0006F2 2.5 21 3 9 - 77 + 16 + 20 1500

820 F 135D827X0006F2 2.5 18 3 14 - 88 + 16 + 20 1500

1200 T 135D128X0006T2 1.5 18 5 18 - 88 + 20 + 25 1900

1500 T 135D158X0006T2 1.5 18 5 20 - 90 + 20 + 25 1900

2200 K 135D228X0006K2 1.0 13 6 24 - 90 + 25 + 30 2300

8 VDC AT + 85 °C; 5 VDC AT + 125 °C; 4.8 VDC AT + 200 °C

180 C 135D187X0008C2 3.0 45 2 9 - 60 + 13 + 16 1000

680 F 135D687X0008F2 2.5 22 3 14 - 83 + 16 + 20 1500

1500 T 135D158X0008T2 1.5 18 5 20 - 90 + 20 + 25 1900

1800 K 135D188X0008K2 1.0 14 7 25 - 90 + 25 + 30 2300

10 VDC AT + 85 °C; 7 VDC AT + 125 °C; 6 VDC AT + 200 °C

120 C 135D127X0010C2 3.2 54 2 6 - 40 + 14 + 16 900

150 C 135D157X0010C2 3.0 54 2 9 - 55 + 13 + 16 900

390 F 135D397X0010F2 2.5 27 3 9 - 66 + 16 + 20 -

470 F 135D477X0010F2 2.5 27 3 16 - 66 + 16 + 20 1450

560 F 135D567X0010F2 2.5 27 3 16 - 77 + 16 + 20 1450

1200 T 135D128X0010T2 1.5 18 5 20 - 88 + 20 + 25 1850

1500 K 135D158X0010K2 1.0 15 7 25 - 88 + 25 + 30 2300

Note

(1) Part numbers are for units with ± 20 % capacitance tolerance, standard + 125 °C maximum temperature, standard polyesterfilm insulation,

and tin-lead terminations. For other capacitance tolerances, other maximum temperatures, insulation and termination options, please

consult Ordering Information on first page for proper part number.

STANDARD RATINGS

CAPACITANCE

(μF)

CASE

CODE PART NUMBER (1)

MAX. ESR

AT + 25 °C

120 Hz

()

MAX. IMP.

AT - 55 °C

120 Hz

()

MAX. DCL

(μA) AT

MAX. CAPACITANCE

CHANGE (%) AT

MAX.

RIPPLE

40 kHz

IRMS

(mA)

+ 25 °C + 85 °C

+ 125 °C - 55 °C + 85 °C + 125 °C

Note

(1) Part numbers are for units with ± 20 % capacitance tolerance, standard + 125 °C maximum temperature, standard polyesterfilm insulation,

and tin-lead terminations. For other capacitance tolerances, other maximum temperatures, insulation and termination options, please

consult Ordering Information on first page for proper part number.

135D

www.vishay.com Vishay

Revision: 31-Jan-12 5Document Number: 40024

For technical questions, contact: tantalum@vishay.com

THIS DOCUMENT IS SUBJECT TO CHANGE WITHOUT NOTICE. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT

ARE SUBJECT TO SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000

15 VDC AT + 85 °C; 10 VDC AT + 125 °C; 9 VDC AT + 200 °C

82 C 135D826X0015C2 3.9 72 2 6 - 35 + 12 + 16 900

100 C 135D107X0015C2 3.9 72 2 9 - 44 + 13 + 16 900

270 F 135D277X0015F2 2.5 31 3 9 - 62 + 16 + 15 1450

390 F 135D397X0015F2 2.5 31 3 16 - 66 + 16 + 20 1450

680 T 135D687X0015T2 1.8 22 6 18 - 74 + 20 + 25 1800

820 T 135D827X0015T2 1.8 22 6 24 - 77 + 20 + 25 1800

1000 K 135D108X0015K2 1.2 17 8 32 - 77 + 25 + 30 2330

25 VDC AT + 85 °C; 15 VDC AT + 125 °C; 12 VDC AT + 200 °C

47 C 135D476X0025C2 5.2 100 2 6 - 23 + 12 + 15 800

56 C 135D566X0025C2 4.3 90 2 6 - 25 + 12 + 15 850

68 C 135D686X0025C2 4.3 90 2 9 - 40 + 12 + 15 850

180 F 135D187X0025F2 2.7 33 3 9 - 54 + 13 + 15 1400

270 F 135D277X0025F2 2.7 33 3 16 - 62 + 13 + 16 1400

390 T 135D397X0025T2 1.8 25 6 18 - 55 + 18 + 25 1500

470 T 135D477X0025T2 1.8 24 6 18 - 65 + 18 + 25 1750

560 T 135D567X0025T2 1.8 24 7 28 - 72 + 20 + 25 1750

680 K 135D687X0025K2 1.2 19 8 32 - 72 + 25 + 30 2100

820 K 135D827X0025K2 1.3 26 8 32 - 80 + 25 + 25 -

30 VDC AT + 85 °C; 20 VDC AT + 125 °C; 18 VDC AT + 200 °C

47 C 135D476X0030C2 5.2 100 2 6 - 23 + 12 + 15 800

56 C 135D566X0030C2 5.2 100 2 9 - 38 + 12 + 15 800

150 F 135D157X0030F2 2.5 36 3 9 - 42 + 13 + 15 1200

220 F 135D227X0030F2 2.5 36 3 16 - 60 + 13 + 16 1200

300 T 135D307X0030T2 2.2 44 3 12 - 60 + 15 + 15 -

390 T 135D397X0030T2 1.8 25 6 18 - 55 + 18 + 25 1500

470 T 135D477X0030T2 1.8 25 8 32 - 65 + 20 + 25 1500

560 K 135D567X0030K2 1.3 20 9 36 - 65 + 25 + 30 2000

35 VDC AT + 85 °C; 22 VDC AT + 125 °C; 21 VDC AT + 200 °C

39 C 135D396X0035C2 4.1 61 2 6 - 22 + 12 + 14 820

120 F 135D127X0035F2 2.5 31 3 10 - 40 + 13 + 15 1315

330 T 135D337X0035T2 1.8 20 6 18 - 50 + 16 + 25 1640

370 K 135D377X0035K2 1.3 15 9 36 - 60 + 25 + 30 2040

40 VDC AT + 85 °C; 25 VDC AT + 125 °C; 20 VDC AT + 200 °C

39 C 135D396X0040C2 4.1 61 2 6 - 22 + 12 + 14 820

370 K 135D377X0040K2 1.5 30 5 25 - 75 + 25 + 25 1900

470 K 135D477X0040K2 1.3 30 9 35 - 80 + 25 + 25 -

50 VDC AT + 85 °C; 30 VDC AT + 125 °C; 30 VDC AT + 200 °C

33 C 135D336X0050C2 5.0 135 2 9 - 29 + 10 + 12 700

100 F 135D107X0050F2 2.8 49 4 12 - 36 + 13 + 15 1200

120 F 135D127X0050F2 2.5 49 4 24 - 42 + 12 + 15 1200

270 T 135D277X0050T2 2.0 30 8 32 - 46 + 20 + 25 1450

330 K 135D337X0050K2 1.5 30 9 36 - 46 + 25 + 30 1900

EXTENDED RATINGS

CAPACITANCE

(μF) CASE CODE PART NUMBER (1)

MAX. ESR

AT + 25 °C

120 Hz

()

MAX. IMP.

AT - 55 °C

120 Hz

()

MAX. DCL

(μA) AT

MAX. CAPACITANCE

CHANGE (%) AT

MAX.

RIPPLE

40 kHz

IRMS

(mA)

+ 25 °C + 85 °C

+ 125 °C - 55 °C + 85 °C + 125 °C

Note

(1) Part numbers are for units with ± 20 % capacitance tolerance, standard + 125 °C maximum temperature, standard polyesterfilm insulation,

and tin-lead terminations. For other capacitance tolerances, other maximum temperatures, insulation and termination options, please

consult Ordering Information on first page for proper part number.

135D

www.vishay.com Vishay

Revision: 31-Jan-12 6Document Number: 40024

For technical questions, contact: tantalum@vishay.com

THIS DOCUMENT IS SUBJECT TO CHANGE WITHOUT NOTICE. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT

ARE SUBJECT TO SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000

60 VDC AT + 85 °C; 40 VDC AT + 125 °C; 36 VDC AT + 200 °C

18 C 135D186X0060C2 7.0 160 2 12 - 20 + 7 + 8 700

27 C 135D276X0060C2 5.0 144 3 12 - 24 + 10 + 12 700

82 F 135D826X0060F2 2.9 54 4 16 - 30 + 15 + 15 1100

100 F 135D107X0060F2 2.5 54 4 20 - 36 + 12 + 15 1100

220 T 135D227X0060T2 1.8 29 8 32 - 40 + 16 + 20 1400

270 K 135D277X0060K2 1.4 23 9 36 - 45 + 20 + 25 1850

330 K 135D337X0060K2 1.3 31 10 40 - 72 + 25 + 25 1850

63 VDC AT + 85 °C; 40 VDC AT + 125 °C; 31 VDC AT + 200 °C

10 C 135D106X0063C2 5.3 250 1.0 2.0 - 20 + 8 + 9 715

27 C 135D276X0063C2 5.0 144 3 12 - 24 + 10 + 12 700

100 F 135D107X0063F2 2.5 54 2 12 - 36 + 12 + 15 1100

75 VDC AT + 85 °C; 50 VDC AT + 125 °C; 45 VDC AT + 200 °C

12 C 135D126X0075C2 5.1 157 3 12 - 19 + 10 + 12 600

22 C 135D226X0075C2 5.1 157 3 12 - 19 + 10 + 12 600

56 C 135D565X0075C2 14.2 475 2 5 - 17 + 8 + 8 600

11 F 135D117X0075F2 2.5 54 4 20 - 36 + 12 + 15 1100

68 F 135D686X0075F2 3.0 63 4 16 - 25 + 12 + 15 1000

82 F 135D826X0075F2 2.5 63 4 24 - 30 + 12 + 15 1000

180 T 135D187X0075T2 2.2 30 9 36 - 35 + 16 + 20 1300

220 K 135D227X0075K2 1.8 24 10 40 - 40 + 20 + 25 1800

300 K 135D307X0075K2 1.8 32 12 48 - 60 + 22 + 22 2000

100 VDC AT + 85 °C; 65 VDC AT + 125 °C; 60 VDC AT + 200 °C

10 C 135D106X0100C2 5.9 200 3 12 - 17 + 10 + 12 800

56 C 135D565X0100C2 14 475 2 5 - 17 + 8 + 8 -

39 F 135D396X0100F2 3.5 80 5 24 - 20 + 12 + 15 1300

47 T 135D476X0100T2 2.5 70 2 10 - 23 + 10 + 10 -

68 T 135D686X0100T2 2.2 40 10 40 - 30 + 14 + 16 1600

120 K 135D127X0100K2 2.7 30 12 48 - 35 + 15 + 17 2000

125 VDC AT + 85 °C; 85 VDC AT + 125 °C; 75 VDC AT + 200 °C

3.9 C 135D395X0125C2 20.4 557 2 5 - 16 + 7 + 8 -

6.8 C 135D685X0125C2 11.7 300 3 12 - 14 + 10 + 12 700

15 F 135D156X0125F2 5.3 167 1 7 - 16 + 7 + 8 1200

27 F 135D276X0125F2 3.5 90 5 24 - 18 + 12 + 15 1200

47 T 135D476X0125T2 2.2 50 10 40 - 26 + 14 + 16 1500

68 K 135D686X0125K2 2.2 32 11 44 - 28 + 15 + 16 1850

82 K 135D826X0125K2 2.8 32 12 48 - 30 + 15 + 17 1900

EXTENDED RATINGS

CAPACITANCE

(μF) CASE CODE PART NUMBER (1)

MAX. ESR

AT + 25 °C

120 Hz

()

MAX. IMP.

AT - 55 °C

120 Hz

()

MAX. DCL

(μA) AT

MAX. CAPACITANCE

CHANGE (%) AT

MAX.

RIPPLE

40 kHz

IRMS

(mA)

+ 25 °C + 85 °C

+ 125 °C - 55 °C + 85 °C + 125 °C

Note

(1) Part numbers are for units with ± 20 % capacitance tolerance, standard + 125 °C maximum temperature, standard polyesterfilm insulation,

and tin-lead terminations. For other capacitance tolerances, other maximum temperatures, insulation and termination options, please

consult Ordering Information on first page for proper part number.

135D

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PERFORMANCE CHARACTERISTICS

1. Operating Temperature: Capacitors are designed to

operate over a temperature range of - 55 °C to + 200 °C.

Note

(1) Consult Vishay Sprague for information at + 200 °C. See

paragraph 9.3.

2. DC Working Voltage: The DC working voltage is the

maximum operating voltage for continuous duty at the

rated temperature.

3. Surge Voltage: The surge voltage rating is the

maximum voltage to which the capacitors should be

subjected under any conditions. This includes

transients and peak ripple at the highest line voltage.

3.1 The surge voltage of capacitors is 115 % of rated DC

working voltage.

3.2 Surge Voltage Test: Capacitors shall withstand the

surge voltage applied through a 1000  ± 10 % resistor

in series with the capacitor and voltage source at the

rate of one-half minute on, four and one-half minutes

off, for 1000 successive test cycles at + 85 °C or

+ 125 °C.

3.3 Following the surge voltage test, the capacitance at

+ 25 °C shall not have changed by more than ± 10 %

and the equivalent series resistance and DC leakage

current will not exceed the values shown in the

Standard Ratings table for each capacitor.

4. Capacitance Tolerance: The capacitance of all

capacitors shall be within the specified tolerance limits

of the nominal rating.

4.1 Measurements shall be made by the bridge method at

or referred to a frequency of 120 Hz at a temperature of

+ 25 °C. The maximum voltage applied to the capacitors

during measurement shall be 1 VRMS. Measurement

accuracy of the bridge shall be within ± 2 %.

5. Capacitance Change With Temperature: The

capacitance change with temperature shall not exceed

the values given in the Standard Ratings table for each

capacitor.

6. Equivalent Series Resistance: Measurements shall be

made by the bridge method at, or referred to, a

frequency of 120 Hz at a temperature of + 25 °C. A

maximum of 1 VRMS shall be applied during

measurement.

6.1 The equivalent series resistance shall not exceed the

maximum value in ohms listed in the Standard Ratings

table for each capacitor.

TYPICAL CURVES OF IMPEDANCE AS A FUNCTION OF FREQUENCY AT VARIOUS TEMPERATURES

0.1

1.0

100

100 1K 10K 100K 1M 10M

“C” Case 33 μF, 50 V Capacitors

+ 125 °C

+ 25 °C

- 40 °C

- 55 °C

- 20 °C

+ 85 °C

Frequency (Hz)

Impedance (Ω)

0.1

1.0

100

100 1K 10K 100K 1M 10M

“K” Case 56 μF, 125 V Capacitors

- 55 °C

- 40 °C

- 20 °C

+ 125 °C + 25 °C

+ 85 °C

Frequency (Hz)

Impedance (Ω)

UP TO

+ 85 °C

(V)

+ 125 °C

(V)

+ 175 °C

(V)

+ 200 °C

(V)

6 4 3

(1)

8 5 4

10 7 5

15 10 8

25 15 13

30 20 15

35 23 18

50 30 25

60 40 30

75 50 38

100 65 50

125 85 63

135D

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6.2 The dissipation factor may be calculated from the

equivalent series resistance and capacitance values as

shown:

where:

DF = Dissipation Factor in %

R = ESR in 

C = Capacitance in μF

f = Frequency in Hz

At 120 Hz, the above equation becomes:

For example, percent dissipation factor of a 30 μF, 6 V

capacitor, which has a maximum ESR of 4.0  at

+ 25 °C and 120 Hz, would be calculated as shown:

7. Leakage Current: Measurements shall be made at the

applicable rated working voltage at + 25 °C ± 5 °C

through application of a steady source of power, such

as a regulated power supply. A 1000  resistor to limit

the charging current shall be conected in series with

each capacitor under test. Rated working voltage shall

be applied to capacitors for 5 minutes before making

leakage current measurements.

7.1 The maximum leakage current for any capacitor shall

not exceed the maximum value in mA listed in the

Standard Ratings and Extended Ratings table for each

capacitor.

Note

• Leakage current varies with applied voltage. See graph next

column for the appropriate adjustment factor

8. Low Temperature Impedance: The impedance of any

capacitor at - 55 °C at 120 Hz, shall not exceed the

values given in the Standard Ratings and Extended

Ratings tables.

9. Life Test: Capacitors are capable of withstanding a

2000 h life test at a temperature of + 85 °C or + 125 °C

at the applicable rated DC working voltage.

9.1 Following the life test, the capacitors shall be returned

to 25 °C ± 5 °C. The leakage current, measured at the

+ 85 °C rated voltage, shall not be in excess of the

original requirement; the capacitance value shall not

exceed 150 % of the initial requirement; the

capacitance value shall not change more than 10 %

from the initial measurement.

9.3 Capacitors are capable of withstanding life test at the

following conditions:

9.4 Following the life test, the capacitors shall be returned

to + 25 °C ± 5 °C. The leakage current, at the rated

voltage shall not exceed 200 % of the original

requirement or ± 10 μA, whichever is greater; the

equivalent series resistance shall not be greater than

200 % of the original requirement; the capacitance

value shall not increase by more than 10 % or decrease

by more than 20 % from the initial measurement.

DF 2fRC

104

------------------

DF R x C

13.26

---------------

DF 2 x 120 x 4 x 30

104

----------------------------------------------4 x 30

13.26

----------------9.05 %===

TYPICAL LEAKAGE CURRENT FACTOR

RANGE

TEMPERATURE HOURS % RATED VOLTAGE

+ 175 °C 2000 50

+ 175 °C 300 65

+ 200 °C 300 60

0 10 20 30 40 50 60 90 10070 80

1.0

0.9

0.8

0.6

0.5

0.7

0.4

0.3

0.2

0.09

0.08

0.06

0.05

0.07

0.04

0.03

0.02

0.1

0.01

LEAKAGE CURRENT FACTOR

PERCENT OF RATED VOLTAGE

135D

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10. Ripple Life Test at + 85 °C: Capacitors shall be tested

in accordance with Military Specification MIL-C-39006

except that:

a) Operation conditions: This test shall be run at a

frequency of 40 kHz ± 2 kHz sinusoidal and at the

RMS ripple current levels specified in the Standard

Ratings and Extended Ratings table.

b) Applied DC voltage shall be reduced so that the

peak AC voltage plus DC voltage shall not exceed

the rated voltage of the capacitor in either the

forward or reverse direction.

10.1 When tested as specified above, capacitors shall meet

the following requirements:

a) The DC leakage current at + 25 °C and at + 85 °C

shall not exceed the original requirements.

b) The capacitance shall not change more than ± 15 %

from the initial measured value.

c) The dissipation factor shall not exceed the original

requirements.

d) Visual examination: There shall be no damage,

obliteration of marking or leakage of electrolyte.

11. Reverse Voltage Test: Capcitors shall withstand a

reverse voltage of 3 VDC at + 85 °C or 2 V at + 125 °C

for 2000 h. The capacitors shall then be restabilized for

24 h at 85 °C with rated DC forward potential applied

through a 1000  resistor.

11.1 Following the reverse voltage test, the DC leakage

current shall not be in excess of the original

requirement; the equivalent series resistance shall not

exceed 200 % of the initial requirement; the

capacitance value shall not be less than 90 % of the

initial measurement.

12. Mechanical Shock Test: Capacitors shall withstand a

shock of 500 g when tested in accordance with

method 213 of MIL-STD-202, test condition D.

12.1 Following the mechanical shock test, capacitors shall

be examined for evidence of mechanical damage and

leakage of electrolyte. Capacitance, equivalent series

resistance, and DC leakage current shall meet the

initial requirements.

13. High Frequency Vibration: Capacitors shall

withstand vibration from 10 Hz to 2000 Hz at 80 g

without internal damage when tested in accordance

with MIL-STD-202, method 204, test condition H.

Electrical measurements made while under these

conditions shall show no intermittent contacts, open

circuits or short circuits.

13.1 Capacitors shall be securely fastened by means of

suitable component clips or brackets.

14. Random Vibration: Capacitors shall withstand

random vibration at all levels up to 51 g RMS overall

when tested in accordance with MIL-STD-202,

method 214, test condition II K. The test shall be

conducted for 1.5 h in each of three mutually

perpenticular directions.

14.1 Electrical measurements made during the test shall

show no intermittent contacts, open circuits or short

circuits.

15. Pull Test: Leads shall withstand a tensile stress of 3

lbs. (1.4 kg) for 30 s applied axially in accordance with

MIL-STD-202, method 211, test condition A.

16. Lead Bend Test: Leads shall meet the bend test

specified in Military Standard MIL-STD-202, method

211 A, condition C except that the number of bends

shall be 4.

17. Moisture Resistance: Capacitors shall withstand the

moisture resistance cycling test specified in Military

Standard MIL-STD-202, method 106, without

departure from the original limits of capacitance,

equivalent series resistance and DC leakage current.

18. Reduced Pressure: Capacitors shall be stabilized at

a reduced atmospheric pressure of 0.82" [20.83 mm]

of mercury for a period of 5 min. Rated DC voltage

shall be applied for 1 min. Capacitors shall not flash

over nor shall end seals be damaged by this nor

should the capacitors be electrically effected insofar

as capacitance, equivalent series resistance or

leakage current is concerned.

19. Seal Test:

19.1 Capacitors shall be tested in accordance with

MIL-STD-202, method 112, test condition C,

procedure IIIa. Specimens shall be pressurized at 4

atmospheres (gage) for 4 h.

20. Thermal Shock: Capacitors shall be subjected to 300

cycles of thermal shock in accordance with Military

specification MIL-C-39006.

20.1 Following the thermal shock test, capacitor leakage

current shall not exceed twice the initial requirement.

21. Marking: Capacitors shall be marked with Sprague,

the Sprague type (135D); rated capacitance and

tolerance (the tolerance shall be coded, using the list

shown in How to Order); rated DC working voltage at

+ 85 °C; the standard EIA date code of manufacture.

21.1 Polarity shall be indicated by plus signs (+) adjacent to

the positive terminal.

135D

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GUIDE TO APPLICATION

1. AC Ripple Current: Subjecting a capacitor to an AC

voltage causes an AC current to flow through it. The

amplitude of the current is dependent on the impedance

of the capacitor at the frequency of the applied signal:

where:

I = Ripple current

V = Applied AC voltage

Z = Impedance of capacitor (frequency dependent)

This current causes heating in the capacitor because of

I2R losses (R is the equivalent series resistance at the

applied frequency). This heating or power dissipation, is

one of the limiting factors of the capacitor’s ripple current

rating.

These power dissipation ratings are based on a

calculated + 50 °C internal temperature rise in still air. The

maximum allowable ripple currents given in the Standard

and Extended Ratings tables are based on these ratings

and the maximum equivalent series resistance at that

frequency.

The relationship is written as follows:

where:

P = Maximum power

I = Maximum ripple current

R = Equivalent series resistance

Therefore:

where:

R is in 

P is in W

I is in ARMS

2. AC Ripple Voltage: In operation, the peak voltage across

the capacitor (DC working voltage plus peak ripple

voltage) must not exceed the rated working voltage of the

capacitor. The DC component of the applied voltage

should be sufficiently large to prevent polarity reversal in

excess of 3 V at + 85 °C or 2 V at 125 °C.

There will be a point at the lower frequency and

capacitance values when the peak AC voltage will be the

limiting factor on the ripple current - not its heating

effects.

For example:

Given a 25 μF, 8 V capacitor in the “C” case code and

assuming a ripple current application at a frequency of

120 Hz, the total maximum allowable peak to peak

voltage at + 25 °C is:

In order to allow the full swing of 11 Vpp and not exceed

rated forward or rated reverse, a DC bias of 2.5 V is

assumed to be applied.

From the ”Standard Ratings Table”, the maximum ripple

current at 40 kHz is 0.820 A. Compensating for the lower

frequency from the “Ripple Current Multipliers” tables:

This current rating is calculated strictly on the basis of

maximum power dissipation. Now calculate what

impressed voltage this amount of current will cause

across this capacitor.

Assuming a sinusoidal voltage, calculate the rated peak

to peak current:

where:

ESR = 4  (from “Standard Ratings” table)

Therefore:

and

Therefore, the peak voltage of the capacitor is the limiting

factor for the ripple current and can be calculated as

follows:

CASE CODE

MAXIMUM PERMISSIBLE

POWER DISSIPATION

AT + 25 °C (W) IN FREE AIR

C1.00

F1.55

T1.75

K1.95

---

2R=

----=

8 VF + 3 VR11 Vpp

IRMS (120 Hz) 0.820 A x 0.6 0.492 ARMS

Ipp IRMS x 2 2 0.492 x 2.828 1.39 App

===

Vpp impressed

Ipp x ZC

 120 Hz=

ZC120Hz

ESR

2 (XC(120 Hz)





2fC

212025 x 10-6



53.1 == =

ZC4

253.1

+ 53.3 ==

Vpp impressed

1.39 App x 53.3  =

74.1 Vpp 11 Vpp

=

Max. Ipp

VCpp allowed

----------------------------------------- 11.0 V

53.3 

------------------ 0.206 App

===

0.206

--------------- 0.073 ARMS at 120 Hz=

135D

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Verifying that the 40 kHz rating does not exceed the peak

voltage limitations:

where:

and:

thus:

Therefore the impressed voltage is:

and:

Therefore, if the capacitor is biased between - 1.41 VDC

and + 6.41 VDC , it can withstand the rated ripple current,

which is based only on the maximum allowable power

dissipation.

3. Ripple Current Multipliers: The “Standard and

Extended Ratings” tables list the maximum permissible

RMS ripple current at 40 kHz for each rating. These

values arebased on the maximum power dissipation

allowed at that frequency.

This ripple current, will cause heating, which adds to the

ambient temperature. The higher ambient temperatures,

voltage derating or current derating is required (see

“Ripple Current Multipliers” tables). Also shown are the

multipliers for ripple currents at various requencies,

caused by the frequency dependence of the (ESR)

equivalent series resistance. (see “Typical ESR as a

Function of Frequency” chart)

Irated 0.820 ARMS

Ipp rated

0.820 x 2 2 2.32 App

ZC (40 kHz) ESR 40 kHz



2 + (XC(40 Hz)





ESR 40 kHz

4  120 Hz x 0.34=

from Extended Ratings table) 1.36 =

XC (40 kHz)

2fC

------------- =

2 x 40 x 103

 x 25 x 10-6



------------------------------------------------------------------------------- 0.159 ==

ZC 40kHz 1.36

2 + 0.159

2 1.37 ==

VCpp ZCpp Ipp 1.37  x 2.32 App 3.18 Vpp

===

3.18 V 11 V

TYP. ESR AS A FUNCTION OF FREQUENCY

EQUIVALENT SERIES RESISTANCE RATIO

0.2

0.6

0.8

0.4

1.4

1.2

1.0

FREQUENCY (Hz)

10 100 1K 40K 100K

10K 1M

RIPPLE CURRENT MULTIPLIERS (120 Hz to 1 kHz)

% OF + 85 °C

RATED PEAK

VOLTAGE

RIPPLE CURRENT MULTIPLIERS

120 Hz 800 Hz 1 kHz

 - 55 °C + 85 °C + 125 °C  - 55 °C + 85 °C + 125 °C  - 55 °C + 85 °C + 125 °C

100 0.60 0.39 - 0.71 0.43 - 0.72 0.45 -

90 0.60 0.46 - 0.71 0.55 - 0.72 0.55 -

80 0.60 0.52 - 0.71 0.62 - 0.72 0.62 -

70 0.60 0.58 - 0.71 0.69 - 0.72 0.70 -

 67 0.60 0.60 0.27 0.71 0.71 0.32 0.72 0.72 0.32

RIPPLE CURRENT MULTIPLIERS (10 kHz to 100 kHz)

% OF + 85 °C

RATED PEAK

VOLTAGE

RIPPLE CURRENT MULTIPLIERS

10 kHz 40 kHz 100 kHz

 - 55 °C + 85 °C + 125 °C  - 55 °C + 85 °C + 125 °C  - 55 °C + 85 °C + 125 °C

100 0.88 0.55 - 1.0 0.63 - 1.1 0.69 -

90 0.88 0.67 - 1.0 0.77 - 1.1 0.85 -

80 0.88 0.76 - 1.0 0.87 - 1.1 0.96 -

70 0.88 0.85 - 1.0 0.97 - 1.1 1.07 -

 67 0.88 0.88 0.40 1.0 1.0 0.45 1.1 1.1 0.50

135D

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4. Storage Life: A storage life of 10 years or more, with no

voltage at room temperature, may be expected.

5. Series Operation: These capacitors may be used in

some series applications. For such an application to

achieve a high voltage rating (e.g. 28 μF, 250 V using two

56 μF, 125 V capacitors), a suitable balancing network of

resistors in parallel with the capacitors is required to

evenly distribute the voltage across each capacitor. The

value of the appropriate resistor will be dependent on the

DC leakage current of the capacitors and, as

recommended value, it should be selected to allow a

current equal to 10 times the DC leakage current limit

(see Standard Ratings and Extended Ratings table at the

appropriate temperature) to flow parallel to each

capacitor.

For example:

where:

VC = Voltage across capacitor

IDCL = DC leakage current at + 85 °C from Standard

Ratings and Extended Ratings table

6. Special Applications: Vishay Sprague product

specialists will, on request, furnish recommendations for

your particular application.

V = 250 VDC

VC1

VC2

56 μF

125 V

RVC

10 IDCL

-------------------- 125 V

200 μA

------------------------625 k===

TYPICAL CURVES OF IMPEDANCE, AS A FUNCTION OF FREQUENCY

0.1

1.0

100

Frequency (Hz)

100 1K 100K

10K 1M 10M

“C” Case 33 μF, 50 V Capacitors (Extended Ratings)

Impedance (Ω)

- 55 °C

- 40 °C

- 20 °C

+ 125 °C

+ 25 °C

+ 85 °C

Frequency (Hz)

100 1K 100K

10K 1M 10M

“C” Case 22 μF, 75 V Capacitors (Extended Ratings)

Impedance (Ω)

- 55 °C

- 40 °C

- 20 °C

+ 125 °C

+ 25 °C

+ 85 °C

0.1

1.0

100

0.2

1.0

100

400

Frequency (Hz)

100 1K 100K

10K 1M 10M

“C” Case 3.6 μF, 125 V Capacitors

Impedance (Ω)

- 55 °C

- 40 °C

- 20 °C

+ 125 °C

+ 25 °C

+ 85 °C

Frequency (Hz)

100 1K 100K

10K 1M 10M

“F” Case 560 μF, 6 V Capacitors (Extended Ratings)

Impedance (Ω)

- 20 °C

- 55 °C

- 40 °C

+ 25 °C

+ 85 °C

+ 125 °C

0.1

1.0

100

135D

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TYPICAL CURVES OF IMPEDANCE, AS A FUNCTION OF FREQUENCY

0.1

1.0

100

Frequency (Hz)

100 1K 100K

10K 1M 10M

“F” Case 180 μF, 10 V Capacitors

Impedance (Ω)

+ 25 °C

+ 125 °C

- 20 °C

- 55 °C

- 40 °C

+ 85 °C

0.1

1.0

100

Frequency (Hz)

100 1K 100K

10K 1M 10M

“F” Case 180 μF, 25 V Capacitors (Extended Ratings)

Impedance (Ω)

+ 25 °C

+ 125 °C

- 20 °C

- 55 °C

- 40 °C

+ 85 °C

Document Number: 91000 www.vishay.com

Revision: 11-Mar-11 1

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