593D475X0050D2TE36 - Vishay Presicion Group

For technical questions, contact tantalum@vishay.com www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

Solid Tantalum Chip Capacitors

Tantamount® Commercial, Surface Mount

for Switch Mode Power Supplies and Converters

TH MIN.

FEATURES

•Terminations: 100% Tin, Standard. SnPb available.

•Molded case available in five case codes.

•Compatible with "High Volume" automatic pick and place

equipment.

•High Ripple Current carrying capability.

•Low ESR.

•Meets EIA 535BAAE and IEC Specification QC300801

US0001.

CASE EIA

CODE SIZE L W H P Tw TH(MIN)

A 3216-18 0.126 ± 0.008 0.063 ± 0.008 0.063 ± 0.008 0.031 ± 0.012 0.047 ± 0.004 0.028

[3.2 ± 0.20] [1.6 ± 0.20] [1.6 ± 0.20] [0.80 ± 0.30] [1.2 ± 0.10] [0.70]

B 3528-21 0.138 ± 0.008 0.110 ± 0.008 0.075 ± 0.008 0.031 ± 0.012 0.087 ± 0.004 0.028

[3.5 ± 0.20] [2.8 ± 0.20] [1.9 ± 0.20] [0.80 ± 0.30] [2.2 ± 0.10] [0.70]

C 6032-28 0.236 ± 0.012 0.126 ± 0.012 0.098 ± 0.012 0.051 ± 0.012 0.087 ± 0.004 0.039

[6.0 ± 0.30] [3.2 ± 0.30] [2.5 ± 0.30] [1.3 ± 0.30] [2.2 ± 0.10] [1.0]

D 7343-31 0.287 ± 0.012 0.170 ± 0.012 0.110 ± 0.012 0.051 ± 0.012 0.095 ± 0.004 0.039

[7.3 ± 0.30] [4.3 ± 0.30] [2.8 ± 0.30] [1.3 ± 0.30] [2.4 ± 0.10] [1.0]

E 7343-43 0.287 ± 0.012 0.170 ± 0.012 0.158 ± 0.012 0.051 ± 0.012 0.095 ± 0.004 0.039

[7.3 ± 0.30] [4.3 ± 0.30] [4.0 ± 0.30] [1.3 ± 0.30] [2.4 ± 0.10] [1.0]

DIMENSIONS in inches [millimeters]

ORDERING INFORMATION

593D

TYPE

107

CAPACITANCE

CASE CODE

See Ratings

and Case

Codes Table.

2WE3

TERMINATION AND

PACKAGING

CAPACITANCE

TOLERANCE

010

DC VOLTAGE RATING

@ + 85°C

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 volts).

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%

(Special Order)

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

(To +125°C with voltage derating.)

Capacitance Range: 0.47µF to 680µF.

PERFORMANCE/ELECTRICAL CHARACTERISTICS

Capacitance Tolerance: ± 20%, ± 10% standard.

Compliant Terminations

100% Surge Current Tested (B, C, D, & E Case Sizes)

Voltage Rating: 4 WVDC to 50 WVDC.

Note: Preferred Tolerance and reel sizes are in bold.

We reserve the right to supply higher voltage ratings and tighter capacitance tolerance capacitors in the same case size. Voltage

substitutions will be marked with the higher voltage rating.

SPECIAL ESR

CODE

2T: Solderable Coating, 7" (178mm) reels

2W: Solderable Coating, 13" (330mm) reel

2TE3: 100% tin terminations, 7" (178mm) reel

2WE3: 100% tin terminations, 13" (330mm) reel

8T: 90/10 SnPb Solder Plate terminations, 7"

(178mm) reel

8W: 90/10 SnPb Solder Plate terminations, 13"

(330mm) reel

Pb Free codes

(7, 6, 5, 4, 3 & 2)

only. See

Ratings Table.

Contact factory

for SnPb part

numbers.

For technical questions, contact tantalum@vishay.com

www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

RATINGS AND CASE CODES

*Preliminary values, contact factory for availability.

µF 4V 6.3V 10V 16V 20V 25V 35V 50V

Std. Ext. Std. Ext. Std. Ext. Std. Ext. Std. Ext. Std. Ext. Std. Ext. Std. Ext.

0.47 A

0.68 A

1.0 A A B A B

1.5 ACBBC

2.2 AB ACBCB

3.3 A A B C D C

4.7 A BABAC B CDE

6.8 A A B C D C D/E

10 A A C A/B C B C D E

15 A A A/B C B B/C D C D

22 A A/B C A/B B/C D C D D/E

33 A/B A/B B/C D B/C D C D/E E*

47 A/B B/C D B/C D C D/E E

68 B/C B/C D B*/C D D/E

100 B/C D B/C C/D D/E E

150 D B/C E C/D D/E D*/E

220 C/D C*/D/E D/E

330 D D/E E

470 D/E E

680 E

CONSTRUCTION

Anode Weld

Epoxy Case

Cathode

Termination ( - )

Tantalum

Capacitor

Element

Positive

Termination

Polarity

Stripe (+)

Marking:

Capacitor marking will include an anode (+) polarity band, capacitance

in microfarads and the voltage rating of + 85°C. 'A' Case capacitors use

a letter code for the voltage and EIA capacitance code.

The Sprague® trademark may be included if space permits.

Units rated at 6.3 V shall be marked 6 V.

A manufacturing date code is marked on all case codes.

Call the factory for further explanation.

CONSTRUCTION AND MARKING

Capacitance

µF

Vishay

Sprague

Logo

Date Code

Polarity

Band

B, C, D, E

MARKING

Capacitance Code,

Vishay

Sprague

Logo

“A” Case

Polarity Band

Voltage Code

Volts Code

6.3 J

10 A

16 C

20 D

25 E

35 V

50 T

V 104L 22 10L

Indicates

Lead (Pb)-free

Indicates

Lead (Pb)-free Voltage

Code

For technical questions, contact tantalum@vishay.com www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

STANDARD / EXTENDED RATINGS

Max. RIPPLE

100kHz

Irms

(Amps)

CASE

CODE PART NUMBER

Max. DC

Leakage

@ + 25°C

(µA)

Max. ESR

@ + 25°

100kHz

(Ohms)

Max. DF

@ + 25

120 Hz

(%)

CAPACITANCE

(µF)

• Preliminary values, contact factory for availability. For 10% tolerance, specify “9”; for 20% tolerance, change to “0”. Extended Ratings in bold print.

**For SnPb version of these part numbers, contact factory

4 WVDC @ + 85°C, SURGE = 5.2 V . .2.7 WVDC @ + 125°C, SURGE = 3.4V

15 A 593D156X_004A2_E3 0.6 6 1.500 0.22

22 A 593D226X_004A2_E3 0.9 6 1.500 0.22

33 A 593D336X_004A2_E3 1.3 6 1.500 0.22

33 B 593D336X_004B2_E3 1.3 6 0.500 0.93

47 A 593D476X_004A2_E3 1.9 14 0.800 0.31

47 B 593D476X_004B2_E3 1.9 6 0.500 0.41

68 B 593D686X_004B2_E3 2.7 6 0.500 0.41

68 C 593D686X_004C2_E3 2.7 6 0.275 0.63

100 B 593D107X_004B2_E3 4.0 6 0.450 0.43

100 C 593D107X_004C2_E3 4.0 6 0.225 0.66

150 B 593D157X_004B2_E3 6.0 14 0.500 0.41

150 C 593D157X_004C2_E3 6.0 8 0.250 0.66

150 D 593D157X_004D2_E3 6.0 8 0.150 1.00

220 C 593D227X_004C2_E3 8.8 8 0.200 0.74

220 D 593D227X_004D2_E3 8.8 8 0.150 1.00

330 D 593D337X_004D2_E3 13.2 8 0.150 1.00

470 D 593D477X_004D2_E3 18.8 10 0.125 1.10

470 D 593D477X_004D2_E35** 18.8 10 0.100 1.22

470 D 593D477X_004D2_E34** 18.8 10 0.060 1.58

470 D 593D477X_004D2_E33** 18.8 10 0.045 1.83

470 D 593D477X_004D2_E32** 18.8 10 0.035 2.07

470 E 593D477X_004E2_E3 18.8 10 0.100 1.28

680 E 593D687X_004E2_E3 27.2 12 0.100 1.28

6.3 WVDC @ + 85°C, SURGE = 8 V .. . 4 WVDC @ 125°C, SURGE = 5V

10 A 593D106X_6R3A2_E3 0.6 6 2.000 0.19

15 A 593D156X_6R3A2_E3 0.9 6 2.000 0.19

15 A 593D156X_6R3A2_E35** 0.9 6 1.000 0.27

22 A 593D226X_6R3A2_E3 1.3 6 2.000 0.19

22 A 593D226X_6R3A2_E35** 1.3 6 1.000 0.27

22 B 593D226X_6R3B2_E3 1.3 6 0.600 0.38

33 A 593D336X_6R3A2_E3 2.0 14 0.800 0.31

33 B 593D336X_6R3B2_E3 2.0 6 0.600 0.38

33 B 593D336X_6R3B2_E35** 2.0 6 0.500 0.41

47 B 593D476X_6R3B2_E3 2.8 6 0.550 0.39

47 B 593D476X_6R3B2_E35** 2.8 6 0.500 0.41

47 C 593D476X_6R3C2_E3 2.8 6 0.300 0.61

68 B 593D686X_6R3B2_E3 4.1 6 0.550 0.39

68 C 593D686X_6R3C2_E3 4.1 6 0.275 0.63

100 B 593D107X_6R3B2_E3 6.0 15 0.500 0.41

100 B 593D107X_6R3B2_E35** 6.0 15 0.400 0.46

100 C 593D107X_6R3C2_E3 6.0 6 0.250 0.66

100 C 593D107X_6R3C2_E35** 6.0 6 0.150 0.86

100 D 593D107X_6R3D2_E3 6.0 6 0.140 1.04

150 C 593D157X_6R3C2_E3 9.0 8 0.200 0.74

150 D 593D157X_6R3D2_E3 9.0 8 0.125 1.10

150 E 593D157X_6R3E2_E3 9.0 8 0.100 1.28

220 D 593D227X_6R3D2_E3 13.2 8 0.100 1.22

220 D 593D227X_6R3D2_E33** 13.2 8 0.050 1.73

220 E 593D227X_6R3E2_E3 13.2 8 0.100 1.28

330 D 593D337X_6R3D2_E3 19.8 8 0.125 1.10

330 D 593D337X_6R3D2_E35** 19.8 8 0.100 1.22

330 D 593D337X_6R3D2_E34** 19.8 8 0.060 1.58

330 D 593D337X_6R3D2_E33** 19.8 8 0.045 1.83

330 D 593D337X_6R3D2_E32** 19.8 8 0.035 2.07

330 E 593D337X_6R3E2_E3 19.8 8 0.100 1.28

470 E 593D477X_6R3E2_E3 28.2 10 0.100 1.28

470 E 593D477X_6R3E2_E35** 28.2 10 0.065 1.59

10 WVDC @ + 85°C, SURGE = 8 V .. . 4 WVDC @ 125°C, SURGE = 5V

4.7 A 593D475X_010A2_E3 0.5 6 3.000 0.16

4.7 A 593D475X_010A2_E37** 0.5 6 1.500 0.22

6.8 A 593D685X_010A2_E3 0.7 6 3.000 0.16

10 A 593D106X_010A2_E3 1.0 6 2.000 0.19

15 A 593D156X_010A2_E3 1.5 6 2.000 0.19

15 A 593D156X_010A2_E35** 1.5 6 1.000 0.27

15 B 593D156X_010B2_E3 1.5 6 0.700 0.35

22 A 593D226X_010A2_E3 2.2 8 1.500 0.22

For technical questions, contact tantalum@vishay.com

www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

STANDARD / EXTENDED RATINGS

10 WVDC @ + 85°C, SURGE = 13 V . . . 7 WVDC @ + 125°C, SURGE = 8 V

16 WVDC @ + 85°C, SURGE = 20 V . . .10 WVDC @ + 125°C, SURGE = 12 V

3.3 A 593D335X_016A2_E3 0.5 6 3.500 0.15

4.7 A 593D475X_016A2_E3 0.8 6 2.500 0.17

4.7 B 593D475X_016B2_E3 0.8 6 1.500 0.24

6.8 A 593D685X_016A2_E3 1.1 6 3.000 0.16

10 A 593D106X_016A2_E3 1.6 6 1.700 0.21

10 B 593D106X_016B2_E3 1.6 6 0.800 0.33

10 C 593D106X_016C2_E3 1.6 6 0.450 0.49

15 B 593D156X_016B2_E3 2.4 6 0.800 0.33

15 C 593D156X_016C2_E3 2.4 6 0.400 0.52

22 B 593D226X_016B2_E3 3.5 6 0.700 0.35

22 C 593D226X_016C2_E3 3.5 6 0.350 0.56

33 B 593D336X0016B2_E3 5.3 6 0.700 0.35

33 C 593D336X_016C2_E3 5.3 6 0.300 0.61

33 D 593D336X_016D2_E3 4.2 4 0.225 0.82

33 D 593D336X_016D2_E35** 5.3 6 0.150 1.00

47 C 593D476X_016C2_E3 7.5 6 0.300 0.61

47 D 593D476X_016D2_E3 7.5 6 0.150 1.00

68 D 593D686X_016D2_E3 10.9 6 0.150 1.00

100 D 593D107X_016D2_E3 16.0 8 0.125 1.10

100 D 593D107X_016D2_E35** 16.0 8 0.100 1.22

100 E 593D107X_016E2_E3 16.0 8 0.100 1.28

150 E 593D157X_016E2_E3 24.0 8 0.100 1.28

1.0 A 593D105X_020A2_E3 0.5 4 5.500 0.12

2.2 A 593D225X_020A2_E3 0.5 6 4.000 0.14

3.3 A 593D335X_020A2_E3 0.7 6 4.000 0.14

4.7 A 593D475X_020A2_E3 0.9 6 3.500 0.15

4.7 B 593D475X_020B2_E3 0.9 6 1.000 0.29

6.8 B 593D685X_020B2_E3 1.4 6 1.000 0.29

10 B 593D106X_020B2_E3 2.0 6 1.000 0.29

10 C 593D106X_020C2_E3 2.0 6 0.450 0.49

15 B 593D156X_020B2_E3 3.0 6 1.000 0.29

15 C 593D156X_020C2_E3 3.0 6 0.400 0.52

22 C 593D226X_020C2_E3 4.4 6 0.375 0.54

22 D 593D226X_020D2_E3 3.5 4 0.225 0.82

33 C 593D336X_020C2_E3 6.6 6 0.350 0.56

33 D 593D336X_020D2_E3 6.6 6 0.200 0.87

47 D 593D476X_020D2_E3 9.4 6 0.200 0.87

47 E 593D476X_020E2_E3 7.5 4 0.150 1.05

68 D 593D686X_020D2_E3 13.6 6 0.175 0.93

68 D 593D686X_020D2_E35** 13.6 6 0.150 1.00

68 D 593D686X_020D2_E34** 13.6 6 0.115 1.14

68 E 593D686X_020E2_E3 13.6 6 0.150 1.05

100 E 593D107X_020E2_E3 20.0 8 0.150 1.05

20 WVDC @ + 85°C, SURGE = 26 V . . . 13 WVDC @ + 125°C, SURGE = 16 V

Max. RIPPLE

100kHz

Irms

(Amps)

CASE

CODE PART NUMBER

Max. DC

Leakage

@ + 25°C

(µA)

Max. ESR

@ + 25°

100kHz

(Ohms)

Max. DF

@ + 25

120 Hz

(%)

CAPACITANCE

(µF)

• Preliminary values, contact factory for availability. For 10% tolerance, specify “9”; for 20% tolerance, change to “0”. Extended Ratings in bold print.

** For SnPb versions of these part numbers, contact factory.

22 A 593D226X_010A2_E35** 2.2 8 1.000 0.27

22 B 593D226X_010B2_E3 2.2 6 0.700 0.35

22 B 593D226X_010B2_E35** 2.2 6 0.500 0.38

22 C 593D226X_010C2_E3 2.2 6 0.345 0.56

33 B 593D336X_010B2_E3 3.3 6 0.600 0.38

33 C 593D336X_010C2_E3 3.3 6 0.300 0.61

47 B 593D476X_010B2_E3 4.7 6 0.600 0.38

47 B 593D476X_010B2_E35** 4.7 6 0.500 0.41

47 C 593D476X_010C2_E3 4.7 6 0.300 0.61

47 D 593D476X_010D2_E3 4.7 6 0.200 0.87

47 D 593D476X_010D2_E35** 4.7 6 0.140 1.04

47 D 593D476X_010D2_E37** 4.7 6 0.100 1.22

68 C 593D686X_010C2_E3 6.8 6 0.275 0.63

68 D 593D686X_010D2_E3 6.8 6 0.150 1.00

100 C 593D107X_010C2_E3 10.0 8 0.200 0.74

100 C 593D107X_010C2_E37** 10.0 8 0.100 1.05

100 D 593D107X_010D2_E3 10.0 6 0.100 1.22

100 D 593D107X_010D2_E35** 10.0 6 0.080 1.37

150 D 593D157X_010D2_E3 15.0 8 0.100 1.22

150 E 593D157X_010E2_E3 15.0 8 0.100 1.28

220 D 593D227X_010D2_E3 22.0 8 0.125 1.10

220 D 593D227X_010D2_E35** 22.0 8 0.100 1.22

220 D 593D227X_010D2_E33** 22.0 8 0.050 1.73

220 E 593D227X_010E2_E3 22.0 8 0.100 1.28

330 E 593D337X_010E2_E3 33.0 10 0.100 1.28

For technical questions, contact tantalum@vishay.com www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

1.0 A 593D105X_025A2_E3 0.5 4 4.000 0.14

1.5 A 593D155X_025A2_E3 0.5 6 4.000 0.14

2.2 A 593D225X_025A2_E3 0.5 6 4.000 0.14

2.2 B 593D225X_025B2_E3 0.6 6 1.500 0.24

3.3 B 593D335X_025B2_E3 0.8 6 1.500 0.24

4.7 B 593D475X_025B2_E3 1.2 6 1.500 0.24

4.7 C 593D475X_025C2_E3 1.2 6 0.525 0.46

6.8 C 593D685X_025C2_E3 1.7 6 0.500 0.47

10 C 593D106X_025C2_E3 2.5 6 0.450 0.49

15 C 593D156X_025C2_E3 3.8 6 0.425 0.51

15 D 593D156X_025D2_E3 3.8 6 0.250 0.77

22 D 593D226X_025D2_E3 5.5 6 0.200 0.87

33 D 593D336X_025D2_E3 8.3 6 0.200 0.87

33 E 593D336X_025E2_E3 8.3 6 0.200 0.91

33 E 593D336X_025E2_E35** 6.6 4 0.175 0.97

47 E 593D476X_025E2_E3 11.8 6 0.200 0.91

STANDARD / EXTENDED RATINGS

25 WVDC @ + 85°C, SURGE = 32 V . . . 17 WVDC @ + 125°C, SURGE = 20 V

35 WVDC @ + 85°C, SURGE = 46 V . . . 23 WVDC @ + 125°C, SURGE = 28 V

0.47 A 593D474X_035A2_E3 0.5 4 4.000 0.14

0.68 A 593D684X_035A2_E3 0.5 4 4.000 0.14

1.0 A 593D105X_035A2_E3 0.5 4 4.000 0.14

1.0 B 593D105X_035B2_E3 0.5 4 2.000 0.21

1.5 B 593D155X_035B2_E3 0.5 6 2.000 0.21

1.5 C 593D155X_035C2_E3 0.5 6 0.900 0.35

2.2 B 593D225X_035B2_E3 0.8 6 2.000 0.21

2.2 C 593D225X_035C2_E3 0.8 6 0.900 0.40

3.3 C 593D335X_035C2_E3 1.2 6 0.700 0.45

4.7 C 593D475X_035C2_E3 1.6 6 0.500 0.47

6.8 C 593D685X_035C2_E3 2.4 6 0.475 0.48

6.8 D 593D685X_035D2_E3 2.4 6 0.300 0.71

10 D 593D106X_035D2_E3 3.5 6 0.300 0.71

10 D 593D106X_035D2_E35** 3.5 6 0.250 0.77

15 D 593D156X_035D2_E3 5.3 6 0.300 0.71

15 D 593D156X_035D2_E35** 5.3 6 0.260 0.76

22 D 593D226X_035D2_E3 7.7 6 0.300 0.71

22 E 593D226X_035E2_E3 7.7 6 0.275 0.77

50 WVDC @ + 85°C, SURGE = 65 V . . . 33 WVDC @ + 125°C, SURGE = 40 V

1.0 B 593D105X_050B2_E3 0.8 6 2.000 0.21

1.5 B 593D155X_050B2_E3 0.8 6 2.000 0.21

1.5 C 593D155X_050C2_E3 0.8 6 1.500 0.27

2.2 B 593D225X_050B2_E3 1.1 6 2.000 0.21

2.2 C 593D225X_050C2_E3 1.1 6 1.500 0.27

3.3 C 593D335X_050C2_E3 1.7 6 1.500 0.27

3.3 D 593D335X_050D2_E3 1.7 6 0.800 0.43

4.7 D 593D475X_050D2_E3 2.4 6 0.600 0.50

4.7 D 593D475X_050D2_E36** 2.4 6 0.300 0.71

4.7 E 593D475X_050E2_E37** 1.9 4 0.300 0.74

6.8 D 593D685X_050D2_E3 3.4 6 0.600 0.50

6.8 D 593D685X_050D2_E35** 3.4 6 0.500 0.55

6.8 E 593D685X_050E2_E3 3.4 6 0.550 0.55

10 E 593D106X_050E2_E3 5.0 6 0.550 0.55

Max. RIPPLE

100kHz

Irms

(Amps)

CASE

CODE PART NUMBER

Max. DC

Leakage

@ + 25°C

(µA)

Max. ESR

@ + 25°

100kHz

(Ohms)

Max. DF

@ + 25

120 Hz

(%)

CAPACITANCE

(µF)

• Preliminary values, contact factory for availability. For 10% tolerance, specify “9”; for 20% tolerance, change to “0”. Extended Ratings in bold print.

** For SnPb versions of these part numbers, contact factory.

For technical questions, contact tantalum@vishay.com

www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

1. Operating Temperature: Capacitors are designed to

operate over the temperature range - 55°C to + 85°C.

1.1 Capacitors may be operated to + 125°C with

voltage derating to two-thirds the + 85°C rating.

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 DC rating is the maximum

voltage to which the capacitors may be subjected

under any conditions, including transients and peak

ripple at the highest line voltage.

3.1 Surge Voltage Test: Capacitors shall withstand

the surge voltage applied in series with a 33 ohm

± 5% resistor at the rate of one-half minute on,

one-half minute off, at + 85°C, for 1000 successive

test cycles.

3.2 Following the surge voltage test, the dissipation

factor and the leakage current shall meet the initial

requirements; the capacitance shall not have changed

more than ± 10%.

4. Capacitance Tolerance: The capacitance of all

capacitors shall be within the specified tolerance

limits of the normal rating.

4.1 Capacitance measurements shall be made by means

of polarized capacitance bridge. The polarizing

voltage shall be of such magnitude that there shall be

no reversal of polarity due to the AC component. The

maximum voltage applied to capacitors during

measurement shall be 2 volts rms at 120 Hz at +25°C.

If the AC voltage applied is less than one-half volt rms,

no DC bias is required. Accuracy of the bridge shall

be within ± 2%.

6. Dissipation Factor: The dissipation factor,

determined from the expression 2πfRC, shall not

exceed values listed in the Standard Ratings Table.

6.1 Measurements shall be made by the bridge method

at, or referred to, a frequency of 120 Hz and a

temperature of + 25°C.

7. Leakage Current: Capacitors shall be stabilized at

the rated temperature for 30 minutes. Rated voltage

shall be applied to capacitors for 5 minutes using a

steady source of power (such as a regulated power

supply) with 1000 ohm resistor connected in series

with the capacitor under test to limit the charging

current. Leakage current shall then be measured.

Note that the leakage current varies with temperature and

applied voltage. See graph below for the appropriate

adjustment factor.

+ 85°C Rating + 125°C Rating

Working

Voltage

(V)

Working

Voltage

(V)

Surge

Voltage

(V)

Surge

Voltage

(V)

6.3

5.2

2.7

3.4

- 55°C

- 10%

+ 85°C

+ 10%

+ 125°C

+ 12%

PERFORMANCE CHARACTERISTICS

100

1.0

0.1

0.01

0.001

0 10 20 30 40 50 60 70 80 90 100

+ 125°C

+ 85°C

+ 55°C

+ 25°C

0°C

- 55°C

Percent of Rated Voltage

Leakage Current Factor

5. Capacitance Change With Temperature: The

capacitance change with temperature shall not exceed

the following percentage of the capacitance measured

at + 25°C:

TYPICAL LEAKAGE CURRENT FACTOR RANGE

For technical questions, contact tantalum@vishay.com www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

7.1 At + 25°C, the leakage current shall not exceed

the value listed in the Standard Ratings Table.

7.2 At + 85°C, the leakage current shall not exceed 10

times the value listed in the Standard Ratings Table.

7.3 At + 125°C, the leakage current shall not exceed

12 times the value listed in the Standard Ratings

Table.

8. ESR

8.1 ESR (Equivalent Series Resistance) shall not

exceed the values listed in the Ratings Table.

Measurement shall be made by the bridge method

at a frequency of 100kHz and a temperature of +25°C.

9. Life Test: Capacitors shall withstand rated DC

voltage applied at + 85°C or two-thirds rated voltage

applied at + 125°C for 2000 hours.

9.1 Following the life test, the dissipation factor shall

meet the initial requirement; the capacitance change

shall not exceed ± 10%; the leakage current shall not

exceed 125% of the initial requirement.

10. Vibration Tests: Capacitors shall be subjected to

vibration tests in accordance with the following criteria.

10.1 Capacitors shall be secured for test by means of a

rigid mounting using suitable brackets.

10.2 Low Frequency Vibration: Vibration shall consist

of simple harmonic motion having an amplitude of

0.03" [0.76mm] and a maximum total excursion of

0.06" [1.52mm], in a direction perpendicular to the

major axis of the capacitors.

10.2.1 Vibration frequency shall be varied uniformly between

the approximate limits of 10 Hz to 55 Hz during a

period of approximately one minute, continuously for

1.5 hours.

10.2.2 An oscilloscope or other comparable means shall be

used in determining electrical intermittency during the

final 30 minutes of the test. The AC voltage applied

shall not exceed 2 volts rms.

10.2.3 Electrical tests shall show no evidence of intermittent

contacts, open circuits or short circuits during these

tests.

10.2.4 Following the low frequency vibration test, capacitors

shall meet the original requirements for capacitance,

dissipation factor and leakage current.

10.3 High Frequency Vibration: Vibration shall consist of

PERFORMANCE CHARACTERISTICS (Continued) a simple harmonic motion having an amplitude of

0.06" [1.52] ± 10% maximum total excursion or 20 g

peak whichever is less.

10.3.1 Vibration frequency shall be varied logarithmically

from 50 Hz to 2000 Hz and return to 50 Hz during

a cycle period of 20 minutes.

10.3.2 The vibration shall be applied for 4 hours in each of 2

directions, parallel and perpendicular to the major axis

of the capacitors.

10.3.3 Rated DC voltage shall be applied during the vibration

cycling.

10.3.4 An oscilloscope or other comparable means shall be

used in determining electrical intermittency during the

last cycle. The AC voltage applied shall not exceed 2

volts rms.

10.3.5 Electrical tests shall show no evidence of intermittent

contacts, open circuits or short circuits during these

tests.

10.3.6 There shall be no mechanical damage to these

capacitors as a result of these tests.

10.3.7 Following the high frequency vibration test, capacitors

shall meet the original limits for capacitance,

dissipation factor and leakage current.

11. Acceleration Test:

11.1 Capacitors shall be rigidly mounted by means of

suitable brackets.

11.2 Capacitors shall be subjected to a constant

acceleration of 100 g for a period of 10 seconds in

each of 2 mutually perpendicular planes.

11.2.1 The direction of motion shall be parallel to and per-

pendicular to the longitudinal axis of the capacitors.

11.3 Rated DC voltage shall be applied during acceleration

test.

11.3.1 An oscilloscope or other comparable means shall be

used in determining electrical intermittency during test.

The AC voltage applied shall not exceed 2 volts rms.

11.4 Electrical tests shall show no evidence of intermittent

contacts, open circuits or short circuits during these

tests.

11.5 There shall be no mechancial damage to these

capacitors as a result of these tests.

11.6 Following the acceleration test, capacitors shall

meet the original limits for capacitance, dissipation

factor and leakage current.

For technical questions, contact tantalum@vishay.com

www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

12. Shock Test:

12.1 Capacitors shall be rigidly mounted by means of

suitable brackets. The test load shall be distributed

uniformly on the test platform to minimize the effects

of unbalanced loads.

12.1.1 Test equipment shall be adjusted to produce a shock

of 100 g peak with the duration of 6 mS and sawtooth

waveform at a velocity change of 9.7 ft./sec.

12.2 Capacitors shall be subjected to 3 shocks applied in

each of 3 directions corresponding to the 3 mutually

perpendicular axes of the capacitors.

12.3 Rated DC voltage shall be applied during test.

12.3.1 An oscilloscope or other comparable means shall be

used in determining electrical intermittency during

tests. The replacement voltage applied shall not

exceed 2 volts rms.

12.4 Electrical tests shall show no evidence of intermittent

contacts, open circuits or short circuits during these

tests.

12.5 There shall be no mechanical damage to these

capacitors as a result of these tests.

12.6 Following the shock test, capacitors shall meet the

original limits for capacitance, dissipation factor and l

leakage current.

13. Moisture Resistance:

13.1 Capacitors shall be subjected to temperature cycling

at 90% to 95% relative humidity, from + 25°C to

+65°C to + 25°C (+ 10°C, - 2°C) over a period of 8

hours per cycle for 1000 hours.

13.2 Following the moisture resistance test, the leakage

current and dissipation factor shall meet the initial

requirements, and the change in capacitance shall

not exceed ± 10%.

14. Thermal Shock:

14.1 Capacitors shall be conditioned prior to temperature

cycling for 15 minutes at + 25°C, at less than 50%

relative humidity and a barometric pressure at 28 to 31"

14.2 Capacitors shall be subjected to thermal shock in a

cycle of exposure to ambient air at :

- 55°C (+ 0°C,- 5°C) for 30 minutes, then

PERFORMANCE CHARACTERISTICS (Continued) + 25°C (+10°C, - 5°C) for 5 minutes, then

+ 125°C (+ 3°C, - 0°C) for 30 minutes, then

+ 25°C (+ 10°C, - 5°C) for 5 minutes for 5 cycles.

14.3 Capacitors shall show no evidence of harmful or

extensive corrosion, obliteration of marking or

other visible damage.

14.4 Following the thermal shock test, capacitors shall

meet the original requirements for leakage current

and dissipation factor. Capacitance change shall not

exceed ± 5% of the original measured value.

15. Soldering Compatibility:

15.1 Resistance to Solder Heat: Capacitors will

withstand exposure to + 260°C + 5°C for 10 seconds.

15.1.1 Following the resistance to soldering heat test,

capacitance, dissipation factor and DC leakage

current shall meet the initial requirement.

15.2 Solderability: Capacitors will meet the solderability

requirements of ANSI/J-STD-002, Test B, Category 3.

16. Terminal Strength: Per UEC-384-3, minimum of

5N shear force.

17. Environmental: Mercury, CFC and ODS materials

are not used in the manufacture of these capacitors.

18. Flammability: Encapsulant materials meet UL94 V0

with an oxygen index of 32%.

19. Capacitor Failure Mode: The predominant failure

mode for solid tantalum capacitors is increased

leakage current resulting in a shorted circuit. Capaci-

tor failure may result from excess forward or reverse

DC voltage, surge current, ripple current, thermal

shock or excessive temperature.

The increase in leakage is caused by a breakdown of

the Ta2O5 dielectric. For additional information on

leakage failure of solid tantalum chip capacitors,

refer to Vishay Sprague Technical Paper, “Leakage

Failure Mode in Solid Tantalum Chip Capacitors.”

20. Surge Current: All B, C, D and E case code 593D

capacitors are 100% surge current tested at + 25°C

and rated voltage. The total series circuit resistance

is 0.5 ohms. Each charge cycle of 0.10 seconds is

followed by a discharge cycle of 0.10 seconds. Three

surge cycles are applied. Each capacitor is tested

individually to maximize the peak charging current.

For technical questions, contact tantalum@vishay.com www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

2. A-C Ripple Current: The maximum allowable ripple

current shall be determined from the formula:

where,

P = Power Dissipation in Watts @ + 25°C as given

in the table in Paragraph Number 5 (Power

Dissipation).

RESR = The capacitor Equivalent Series Resistance

at the specified frequency.

3. A-C Ripple Voltage: The maximum allowable ripple

voltage shall be determined from the formula:

or, from the formula:

where,

P = Power Dissipation in Watts @ + 25°C as

given in the table in Paragraph Number 5

(Power Dissipation).

RESR = The capacitor Equivalent Series Resistance

at the specified frequency.

Z = The capacitor impedance at the specified

frequency.

3.1 The sum of the peak AC voltage plus the DC voltage

shall not exceed the DC voltage rating of the

capacitor.

3.2 The sum of the negative peak AC voltage plus the

applied DC voltage shall not allow a voltage reversal

exceeding 10% of the DC rating at + 25°C.

4. Reverse Voltage: These capacitors are capable of

withstanding peak voltages in the reverse direction

equal to 10% of the DC rating at + 25°C, 5% of the

DC rating at + 85°C and 1% of the DC rating at +125°C.

Irms =

RESR

Vrms = Irms x Z

RESR

Vrms = Z

Case Code

Maximum Permissible

Power Dissipation

@ + 25°C (Watts) in free air

0.075

0.085

0.110

0.150

0.165

7. Printed Circuit Board Materials: Type 593D

capacitors are compatible with commonly used printed

circuit board materials (alumina substrates, FR4,

FR5, G10, PTFE-fluorocarbon and porcelanized

steel).

8. Attachment:

8.1 Solder Paste: The recommended thickness of the

solder paste after application is .007" ± .001"

[.178mm ± .025mm]. Care should be exercised in

selecting the solder paste. The metal purity should

be as high as practical. The flux (in the paste) must

be active enough to remove the oxides formed on the

metallization prior to the exposure to soldering heat. In

practice this can be aided by extending the solder

preheat time at temperatures below the liquidous state

of the solder.

8.2 Soldering: Capacitors can be attached by

conventional soldering techniques; vapor phase,

convection reflow, infrared reflow, wave soldering and

hot plate methods. The Soldering Profile charts show

recommended time/temperature conditions for

soldering. Preheating is recommended. The

recommended maximum ramp rate is 2°C per second.

Attachment with a soldering iron is not recommended

due to the difficulty of controlling temperature and time

at temperature. The soldering iron must never come

in contact with the capacitor.

8.2.1 Backward and Forward Compatibility: Capacitors

with SnPb or 100% tin termination finishes can be

soldered using SnPb or lead (Pb)-free soldering

processes.

9. Cleaning (Flux Removal) After Soldering: The

593D is compatible with all commonly used solvents

such as TES, TMS, Prelete, Chlorethane, Terpene

and aqueous cleaning media. However, CFC/ODS

products are not used in the production of these

devices and are not recommended. Solvents contain-

ing methylene chloride or other epoxy solvents should

be avoided since these will attack the epoxy

encapsulation material.

9.1 When using ultrasonic cleaning, the board may

resonate if the output power is too high. This vibration

can cause cracking or a decrease in the adherence of

the termination. DO NOT EXCEED 9W/l @ 40kHz

for 2 minutes.

GUIDE TO APPLICATION

1. Recommended Voltage Derating Guidelines:

Standard Conditions, for example; output filters

Capacitor Voltage Rating (V) Operating Voltage (V)

4 2.5

6.3 3.6

10 6

16 10

20 12

25 15

35 24

50 28

Severe Conditions, for example; input filters

Capacitor Voltage Rating (V) Operating Voltage (V)

4 2.5

6.3 3.3

10 5

16 8

20 10

25 12

35 15

50 24

5. Temperature Derating: If these capacitors are to be

operated at temperatures above + 25°C, the

permissible rms ripple current or voltage shall be

calculated using the derating factors as shown:

Temperature Derating Factor

+ 25°C

+ 85°C

+ 125°C

1.0

0.9

0.4

6. Power Dissipation: Power dissipation will be

affected by the heat sinking capability of the mounting

surface. Non-sinusoidal ripple current may produce

heating effects which differ from those shown. It is

important that the equivalent

Irms

value be

established when calculating permissible operating

levels. (Power Dissipation calculated using + 25°C

temperature rise.)

For technical questions, contact tantalum@vishay.com

www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

10. Recommended Mounting Pad Geometries: Proper mounting pad geometries are essential for successful solder

connections. These dimensions are highly process sensitive and should be designed to minimize component rework

due to unacceptable solder joints. The dimensional configurations shown are the recommended pad geometries for

both wave and reflow soldering techniques. These dimensions are intended to be a starting point for circuit board

designers and may be fine tuned if necessary based upon the peculiarities of the soldering process and/or circuit board

design.

Wave Solder Pads Reflow Solder Pads

Pad Dimensions

Case

Code

(Min.)

(Nom.)

0.034

[0.87]

0.061

[1.54].

061

[1.54]

0.066

[1.68]

0.066

[1.68]

0.085

[2.15]

0.085

[2.15]

0.106

[2.70]

0.106

[2.70]

0.106

[2.70]

0.053

[1.35]

0.065

[1.65]

0.124

[3.15]

0.175

[4.45]

0.175

[4.45]

0.222

[5.65]

0.234

[5.95]

0.337

[8.55]

0.388

[9.85]

0.388

[9.85]

0.048

[1.23]

0.048

[1.23]

0.050

[1.28]

0.050

[1.28]

0.050

[1.28]

(Min.)

(Nom.)

0.071

[1.80]

0.110

[2.80]

0.110

[2.80]

0.118

[3.00]

0.118

[3.00]

0.085

[2.15]

0.085

[2.15]

0.106

[2.70]

0.106

[2.70]

0.106

[2.70]

0.053

[1.35]

0.065

[1.65]

0.124

[3.15]

0.175

[4.45]

0.175

[4.45]

0.222

[5.65]

0.234

[5.95]

0.337

[8.55]

0.388

[9.85]

0.388

[9.85]

0.048

[1.23]

0.048

[1.23]

0.050

[1.28]

0.050

[1.28]

0.050

[1.28]

Pad Dimensions

Case

Code

GUIDE TO APPLICATION (Continued)

SOLDERING PROFILE

RECOMMENDED MOUNTING PAD GEOMETRIES Iin inches [millimeters]

Recommended Pb Free Reflow Soldering Profile

TIME (seconds)

All Case Codes

60 - 150 sec

Preheat

150°C

200°C

260°C

217°C

10 sec

60 sec

25°C

TEMPERATURE (°C)

Recommended SnPb Reflow Soldering Profile

TIME (seconds)

All Case Codes

60 - 90 sec

Preheat

100°C

150°C

225°C

183°C

10 sec

60 sec

25°C

TEMPERATURE (°C)

For technical questions, contact tantalum@vishay.com www.vishay.com

593D

Vishay Sprague

Document Number 40005

Revision 31-Mar-05

Tape and Reel Specifications: All case codes are available

on plastic embossed tape per EIA-481-1. Tape reeling per

IEC 286-3 is also available. Standard reel diameter is 13"

[330mm]. 7" [178mm] reels are available.

The most efficient packaging quantities are full reel

increments on a given reel diameter. The quantities shown

allow for the sealed empty pockets required to be in

conformance with EIA-481-1. Reel size must be specified

in the Vishay Sprague part number.

0.094

[2.4]

0.177

[4.5]

0.157 ± 0.004

[4.0 ± 0.10]

0.079 ± 0.002

[2.0 ± .050]

0.069 ± 0.004

[1.75 ± 0.10]

D1 Min.

0.059 + 0.004 - 0.0

[1.5 + 0.10 - 0.0]

Direction of Feed

TAPE

SIZE

(Max.) D1

(Min.) FK

(Max.) PWA0B0K0

8mm

12mm

0.165

[4.2]

0.323

[8.2]

0.039

[1.0]

0.059

[1.5]

0.138 ± 0.002

[3.5 ± 0.05]

0.217 ± 0.002

[5.5 ± 0.05]

0.157 ± 0.004

[4.0 ± 1.0]

0.315 ± 0.004

[8.0 ± 1.0]

0.315 ± 0.012

[8.0 ± 0.30]

0.472 ± 0.012

[12.0 ± 0.30]

Notes: A0B0K0 are determined by component size.

The clearance between the component and the

cavity must be within 0.002" [0.05mm] minimum to

0.020" [0.50mm] maximum for 8mm tape and 0.002"

[0.05mm] minimum to 0.026" [0.65mm] maximum

for 12mm tape.

Case

Code

Tape

Width

Component

Pitch

Units Per Reel

7" [178]

Reel

13" [330]

Reel

8mm

12mm

4mm

8mm

2000

500

400

9000

8000

3000

2500

1500

Standard orientation is with the

cathode (-) nearest to the sprocket

holes per EIA-481-1 and IEC 286-3.

Top Cover

Tape Thickness

Carrier

Embossment

Cathode (-)

Anode (+)

Direction of Feed

Max.

0.024

[0.600]

Max.

Top Cover Tape

B1 Max.

TAPE AND REEL PACKAGING in inches [millimeters]