1© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
One world. One KEMET
Benets
• Highest energy per unit volume
• Stable capacitance across temperature and voltage
• No aging effects
• Low ESR values
• High frequency capacitance retention
• High ripple handling
• 100% accelerated steady state aging
• 100% surge current tested
• 100% thermal shock tested (T545 only)
• Halogen-free epoxy and RoHS compliant
Applications
Typical applications include enterprise storage, networking, server, mobile, client storage, and client computing.
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Overview
The KEMET Organic Capacitors (KO-CAP) are preferred
solutions for applications requiring power loss protection
(hold-up) or maximum power eciency of a circuit when
board space is limited. Desired benets include high
energy density, stable capacitance with applied voltage
and temperature, and no aging effects. The conductive
polymer cathode of these solid electrolytic capacitors
provide very low ESR and higher capacitance retention at
high frequencies. Unlike liquid electrolyte-based capacitors,
KEMET polymer capacitors have a very long operational
life and high ripple current capabilities. Capacitors from
T520, T521, and T523 series are commonly used in these
applications. The T545 and T548 were introduced to meet
specic needs for a subsegment of solid state drives.
T520/T521/T545 T523/T548
2© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
2
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Environmental Compliance
• RoHS compliant (6/6) according to Directive 2002/95/EC when ordered with 100% Sn solder or Ni-Pd-Au
• Halogen-free
• Epoxy compliant with UL94 V–0
K-SIM
For a detailed analysis of specic part numbers, please visit ksim.kemet.com to access KEMET’s K-SIM software. KEMET
K-SIM is designed to simulate behavior of components with respect to frequency, ambient temperature, and DC bias levels.
Ordering Information
T548 V157 M016 A T E050
Capacitor
Class Series Case
Size
Capacitance
Code (pF)
Capacitance
Tolerance
Rated
Voltage
(VDC)
Failure
Rate/
Design
Termination
Finish ESR Packaging
(C-Spec)
T =
Tantalum
520 = Low voltage
521 = High voltage
523 = Facedown
terminal
545 = High energy
548 = High energy,
facedown terminal
B, G,
H, J,
M, O,
T, V,
W, X,
Y
First two digits
represent
signicant
gures. Third
digit species
number of
zeros.
K = ±10%
M = ±20%
006 = 6.3
010 = 10
016 = 16
020 = 20
025 = 25
035 = 35
A = N/A T = 100% matte tin
(Sn)-plated
P* = Ni-Pd-Au-plated
ESR in mΩ Blank = 7" reel
7280 = 13" reel
* P termination only available on T523/T548 part numbers
Performance Characteristics
Item Performance Characteristics
Operating Temperature −55°C to 85°C/105°C (refer to part number in Table 1 for maximum temperature rating)
Rated Capacitance Range 22 – 1,500 μF at 120 Hz/25°C
Capacitance Tolerance K tolerance (10%), M tolerance (20%)
Rated Voltage Range 6.3 – 35 VDC
DF (120 Hz) Refer to part number in Table 1 for electrical specication
ESR (100 kHz) Refer to part number in Table 1 for electrical specication
Leakage Current ≤ 0.1 CV (µA) at rated voltage after 5 minutes (refer to part number in Table 1 for electrical
specication)
3© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
3
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Qualication
Test Condition Characteristics
Endurance 85°C or 105°C at rated voltage, 2,000 hours**
Δ C/C Within −20/+10% of initial value
DF Within initial limit
DCL Within 1.25 x initial limit
ESR Within 2.0 x initial limit
Storage Life 85°C or 105°C at 0 volts, 2,000 hours**
Δ C/C Within −20%/+10% of initial value
DF Within initial limits
DCL Within 1.25 x initial limit
ESR Within 2.0 x initial limit
Humidity 60°C, 90% RH, no load, 500 hours
Δ C/C Within −5% /+35%
DF Within initial limit
DCL Within 5.0 x initial limit
ESR Within 2.0 x initial limit
Temperature Stability
Extreme temperature exposure at a
succession of continuous steps at
+25°C, −55°C, +25°C, +85°C, +105°C**,
+25°C
+25°C −55°C +25°C +85°C +105°C** +25°C
Δ C/C IL* ±20% ±10% ±20% ±30% ±10%
DF IL IL IL 1.2 x IL 1.5 x IL IL
DCL IL N/A IL 10 x IL 10 x IL IL
Surge Voltage 85°C or 105°C, 1.32 x rated voltage, 1,000
cycles**
Δ C/C Within −20/+10% of initial value
DF Within initial limits
DCL Within initial limits
ESR Within initial limits
Mechanical Shock/
Vibration
MIL–STD–202, Method 213 and 204
Condition I, 100 G peak
Condition D, 20 G for 20 minutes/12 cycles each
of 3 orientations. Test from 10 ~ 2,000 Hz
Δ C/C
Within ±10% of initial value
(Within initial limits for T527 Series)
DF Within initial limits
DCL Within initial limits
* IL = Initial limit
** Refer to Table 1 - Ratings & Part Number Reference for temperature classication. If temperature classication is 85°C, the 105°C step is not
performed for the temperature stability test.
4© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
4
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Reliability
KO-CAP capacitors have an average failure rate of 0.5 %/1,000 hours at category voltage, UC, and category temperature,
TC. These capacitors are qualied using industry test standards at UC and TC. The minimum test time (1,000 hours or 2,000
hours) is dependent on the product.
The actual life expectancy of KO-CAP capacitors increases when application voltage, UA, and application temperature, TA,
are lower than UC and TC. As a general guideline, when UA < 0.9 * UC and TA < 85°C, the life expectancy will typically exceed
the useful lifetime of most hardware (> 10 years).
The lifetime of a KO-CAP capacitor at a specic application voltage and temperature can be modeled using the equations
below. A failure is dened as passing enough current to blow a 1-amp fuse. The calculation is an estimation based on
empirical results and is not a guarantee.
TAF = e[ ( )]
Ea
k
1
273+TA
1
273+TC
TAF = acceleration factor due to temperature, unitless
where:
Ea = activation energy, 1.4 eV
k = Boltzmann’s constant, 8.617E-5 eV/K
TA = application temperature, °C
TC = category temperature, °C
VAF = ( )
UC
UA
n
VAF = acceleration factor due to voltage, unitless
where:
UC = category voltage, volt
UA = application voltage, volt
n = exponent, 16
AF = VAF * TAF
AF = acceleration factor, unitless
where:
TAF = accerlation factor due to temperature, unitless
VAF = acceleration factor due to voltage, unitless
* AFLifeUA ,TA= LifeUC ,TC
LifeUA, TA = guaranteed life application voltage
and temperature, years
where:
AF = acceleration factor, unitless
LifeUC, TC = guaranteed life category voltage
and temperature, years
Terms:
Category voltage, UC : maximum recommended peak DC operating voltage for continuous operation at the category temperature, TC
Rated voltage, UR : maximum recommended peak DC operating voltage for continuous operation up to the rated temperature, TR
Category temperature, TC : maximum recommended operating temperature. Voltage derating may be required at TC
Rated temperature, TR : maximum recommended operating temperature without voltage derating. TR is equal to or lower than TC
Reliability Table 1 – Common temperature range classications
85°C (TR) /
85°C (TC)
Rated Voltage (U
R
)2.5 4.0 6.3 8.0 10.0 12.5 16.0 20.0 25.0 35.0 50.0 63.0 75.0
Category Voltage (U
C
)2.5 4.0 6.3 8.0 10.0 12.5 16.0 20.0 25.0 35.0 50.0 63.0 75.0
105°C (TR) /
105°C (TC)
Rated Voltage (T
R
)2.5 4.0 6.3 8.0 10.0 12.5 16.0 20.0 25.0 35.0 50.0 63.0 75.0
Category Voltage (U
C
)2.5 4.0 6.3 8.0 10.0 12.5 16.0 20.0 25.0 35.0 50.0 63.0 75.0
105°C (TR) /
125°C (TC)
Rated Voltage (T
R
)2.5 4.0 6.3 8.0 10.0 12.5 16.0 20.0 25.0 35.0 50.0 63.0 75.0
Category Voltage (U
C
)1.7 2.7 4.2 5.4 6.7 8.4 10.7 13.4 16.8 23.5 33.5 42.2 50.3
5© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
5
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Dimensions – Millimeters (Inches)
Metric will govern
For T520/T521/T545
H
X
T
B
B
F
A
L
R
P
SIDE VIEW
ANODE (+) END VIEW BOTTOM VIEW
CATHODE (-) END VIEW
W
S
S
Termination cutout
at KEMET's option,
either end
Glue pad
shape/design at
KEMET's option
KEMET EIA L W H F ±0.1
(±0.004)
S ±0.3
(±0.012)
B ±0.15
(Ref) ±0.006
X
(Ref)
P
(Ref)
T
(Ref)
A
(Min)
Typical
Weight
(mg)
T3528-12
3.5 ±0.2
(0.138 ±0.008)
2.8 ±0.2
(0.110 ±0.008)
1.1 ±0.1
(0.043 ±0.004)
2.2
(0.087)
0.80
(0.032)
N/A
0.05
(0.002)
N/A
0.13
(0.005)
1.9
(0.075)
55
M3528-15
3.5 ±0.2
(0.138 ±0.008)
2.8 ±0.2
(0.110 ±0.008)
1.4 ±0.1
(0.055 ±0.004)
2.2
(0.087)
0.8
(0.031)
N/A
0.05
(0.002)
N/A
0.13
(0.005)
1.1
(0.043)
98
B3528-21
3.5 ±0.2
(0.138 ±0.008)
2.8 ±0.2
(0.110 ±0.008)
1.9 ±0.2
(0.075 ±0.008)
2.2
(0.087)
0.80
(0.032)
0.4
(0.016)
0.10 ±0.10
(0.004 ±0.004)
0.5
(0.020)
0.13
(0.005)
1.9
(0.075)
95
W7343-15
7.3 ±0.3
(0.287 ±0.012)
4.3 ±0.3
(0.169 ±0.012)
1.4 ±0.1
(0.055 ±0.004)
2.4
(0.094)
1.30
(0.051)
N/A
0.05
(0.002)
N/A
0.13
(0.005)
3.6
(0.142)
223
V7343-20
7.3 ±0.3
(0.287 ±0.012)
4.3 ±0.3
(0.169 ±0.012)
1.9 ±0.1
(0.075 ±0.004)
2.4
(0.094)
1.30
(0.051)
N/A
0.05
(0.002)
N/A
0.13
(0.005)
3.6
(0.142)
274
Y7343-40
7.3 ±0.3
(0.287 ±0.012)
4.3 ±0.3
(0.169 ±0.012)
3.8 ±0.2
(0.150 ±0.008)
2.4
(0.094)
1.3
(0.051)
0.5
(0.020)
0.10 ±0.10
(0.004 ±0.004)
1.7
(0.067)
0.13
(0.005)
3.8
(0.150)
494
X7343-43
7.3 ±0.3
(0.287 ±0.012)
4.3 ±0.3
(0.169 ±0.012)
4.0 ±0.3
(0.157 ±0.012)
2.4
(0.094)
1.30
(0.051)
0.5
(0.020)
0.10 ±0.10
(0.004 ±0.004)
1.7
(0.067)
0.13
(0.005)
3.6
0.142)
554
J7360-15
7.3 ±0.3
(0.287 ±0.012)
6.0 ±0.3
(0.236 ±0.012)
1.4 ±0.1
(0.055 ±0.004)
4.1
(0.161)
1.30
(0.051)
N/A
0.10 ±0.10
(0.004 ±0.004)
N/A
0.13
(0.005)
3.8
(0.150)
263
H7360-20
7.3 ±0.3
(0.287 ±0.012)
6.0 ±0.3
(0.236 ±0.012)
1.9 ±0.1
(0.075 ±0.004)
4.1
(0.161)
1.3
(0.051)
N/A
0.10 ±0.10
(0.004 ±0.004)
N/A
0.13
(0.005)
3.8
(0.150)
385
O7360-43
7.3 ±0.3
(0.287 ±0.012)
6.0 ±0.3
(0.236 ±0.012)
4.0 ±0.3
(0.157 ±0.012)
4.1
(0.161)
1.3
(0.051)
N/A
0.10 ±0.10
(0.004 ±0.004)
N/A
0.13
(0.005)
3.8
(0.150)
696
For T523/T548
SIDE VIEW
BOTTOM VIEW
END VIEW
F
S
S
W L
H
KEMET EIA L W H F ±0.1
(±0.004)
S ±0.3
(±0.012)
Weight
(mg)
W7343-15
7.3 ±0.3
(0.287 ±0.012)
4.3 ±0.3
(0.169 ±0.012)
1.4 ±0.1
(0.055 ±0.004)
2.4
(0.094)
1.3
(0.051)
223
G7360-12
7.3 ±0.3
(0.287 ±0.012)
6.0 ±0.3
(0.236 ±0.012)
1.2 (0.047)
Maximum
4.45
(0.175)
1.6
(0.063)
–
J7360-15
7.3 ±0.3
(0.287 ±0.012)
6.0 ±0.3
(0.236 ±0.012)
1.5 (0.059)
Maximum
4.45
(0.175)
1.6
(0.063)
263
V7343-20
7.3 ±0.3
(0.287 ±0.012)
4.3 ±0.3
(0.169 ±0.012)
2.0 (0.078)
Maximum
2.4
(0.094)
1.3
(0.051)
274
H7360-20
7.3 ±0.3
(0.287 ±0.012)
6.0 ±0.3
(0.236 ±0.012)
2.0 (0.078)
Maximum
4.45
(0.175)
1.6
(0.063)
385
6© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
6
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Table 1 – Ratings & Part Number Reference
Part Numbers marked in blue font are "Under Development." Engineering samples available upon request.
Part numbers marked in orange font are not recommended for new designs. Please use the T520 or T523 series instead.
(1) To complete KEMET part number, insert M for ±20% or K for ±10%. Designates capacitance tolerance. Refer to Ordering Information for additional
detail.
• Energy = ½ * Nominal Cap * (Application Voltage^2 * Dropout Voltage^2)/1000; a 3 V dropout voltage was used for the calculation.
Va = Voltage applied
Vd = Voltage dropped
Rated
Voltage/
Application
Voltage
Case Size/
Case Height
KEMET
Part
Number
Energy
(½CVa²) –
(½CVd²)
Nominal
Capacitance
Maximum
DF at 25°C,
120 Hz
Maximum
ESR at
25°C,
100 kHz
Maximum
DC Leakage
at 25°C, Vr, 5
min charge
time
Maximum
Allowable
Ripple Current
at 45°C, 100
kHz
MSL
Maximum
Operating
Temperature
VDC
EIA/mm
mJ
µF
%
mΩ
µA
mA
°C
6.3/5.7 3528/1.2 T520T107M006APE070 1.2 100 10 70 63.0 1230 3105
6.3/5.7 3528/1.2 T520T157M006ATE070 1.7 150 10 70 94.5 1230 3105
16.0/12.8 3528/1.2 T521T336M016ATE070 2.6 33 10 70 52.8 1230 3105
6.3/5.7 3528/1.5 T520M157M006ATE070 1.7 150 10 70 94.5 1310 3105
6.3/5.7 7343/1.5 T545W477M006ATE035 5.4 470 10 35 296.1 2270 3105
6.3/5.7 7343/1.5 T545W477M006ATE045 5.4 470 10 45 296.1 2000 3105
6.3/5.7 7343/1.5 T545W477M006ATE055 5.4 470 10 55 296.1 1810 3105
16.0/12.8 7343/1.5 T545W476M016ATE045 3.6 47 10 45 75.2 2000 3105
16.0/12.8 7343/1.5 T523W686(1)016APE050 5.3 68 10 50 108.8 2820 3105
16.0/12.8 7343/1.5 T523W686(1)016APE070 5.3 68 10 70 108.8 2376 3 105
16.0/12.8 7343/1.5 T523W686(1)016APE100 5.3 68 10 100 108.8 1988 3105
16.0/12.8 7343/1.5 T523W107(1)016APE050 7.7 100 10 50 160.0 2820 3105
16.0/12.8 7343/1.5 T523W107(1)016APE070 7.7 100 10 70 160.0 2376 3 105
16.0/12.8 7343/1.5 T523W107(1)016APE100 7.7 100 10 100 160.0 1988 3105
16.0/12.8 7343/1.5 T523W157M016APE050 11.6 150 10 50 240.0 2820 3105
16.0/12.8 7343/1.5 T523W157M016APE070 11.6 150 10 70 240.0 2376 3 105
16.0/12.8 7343/1.5 T523W157M016APE100 11.6 150 10 100 240.0 1988 3105
20.0/16.0 7343/1.5 T545W476M020ATE045 5.8 47 10 45 94.0 2000 3105
20.0/16.0 7343/1.5 T545W476M020ATE055 5.8 47 10 55 94.0 1810 3105
35.0/28.0 7343/1.5 T523W476M035APE090 18.2 47 10 90 164.5 2100 385
35.0/28.0 7343/1.5 T523W476M035APE100 18.2 47 10 100 164.5 1988 385
10.0/9.0 7360/1.2 T523G337M010APE150 11.0 330 10 150 330.0 1410 485
10.0/9.0 7360/1.2 T523G397M010APE150 14.0 390 10 150 390.0 1410 485
16/12.8 7360/1.2 T523G157M016APE150 11.6 150 10 150 240.0 1410 485
6.3/5.7 7360/1.5 T523J687M006APE070 7.9 680 10 70 428.0 2510 385
10.0/9.0 7360/1.5 T523J337M010APE070 11.9 330 10 70 330.0 2510 385
10.0/9.0 7360/1.5 T523J477M010APE070 16.9 470 10 70 470.0 2510 485
16.0/12.8 7360/1.5 T523J227M016APE070 17.0 220 10 70 352.0 2510 385
6.3/5.7 3528/2.0 T520B227M006ATE070 2.5 220 10 70 138.6 1350 3105
16.0/12.8 3528/2.0 T521B226M016ATE070 1.7 22 10 70 35.2 1350 3105
20.0/16.0 3528/2.0 T521B226M020ATE070 2.7 22 10 70 44.0 1350 3105
6.3/5.7 7343/2.0 T545V337M006ATE045 3.8 330 10 45 207.9 2040 3105
6.3/5.7 7343/2.0 T545V477M006ATE055 5.4 470 10 55 296.1 1850 3105
10.0/9.0 7343/2.0 T545V227M010ATE045 7.9 220 10 45 220.0 2040 3105
16.0/12.8 7343/2.0 T545V476M016ATE045 3.6 47 10 45 75.2 2040 3105
16.0/12.8 7343/2.0 T545V476M016ATE070 3.6 47 10 70 75.2 1640 3105
16.0/12.8 7343/2.0 T545V107M016ATE050 7.7 100 10 50 160.0 1940 3105
16.0/12.8 7343/2.0 T523V157M016APE050 11.6 150 10 50 240.0 2870 3105
16.0/12.8 7343/2.0 T523V157M016APE070 11.6 150 10 70 240.0 1640 3105
16.0/12.8 7343/2.0 T523V157M016APE100 11.6 150 10 100 240.0 1400 3105
20.0/16.0 7343/2.0 T545V476M020ATE070 5.8 47 10 70 94.0 1640 3105
25.0/20.0 7343/2.0 T523V107M025APE070 7.7 100 10 70 250.0 1600 3105
25.0/20.0 7343/2.0 T523V107M025APE100 7.7 100 10 100 250.0 1400 3105
6.3/5.7 7360/2.0 T545H108M006ATE055 11.6 1000 20 55 630.0 1850 385
6.3/5.7 7360/2.0 T520H158M006ATE055 17.4 1500 20 55 945.0 1800 385
6.3/5.7 7360/2.0 T520H158M006ATE035 17.4 1500 20 35 945.0 2320 385
6.3/5.7 7360/2.0 T545H158M006ATE035 17.4 1500 20 35 945.0 2320 385
6.3/5.7 7360/2.0 T545H158M006ATE055 17.4 1500 20 55 945.0 1850 385
10.0/9.0 7360/2.0 T520H827M010ATE055 29.5 820 10 55 820.0 1910 485
10.0/9.0 7360/2.0 T523H108M010APE070 17.0 1000 10 70 1000.0 2510 485
VDC
EIA/mm
mJ
µF
%
mΩ
µA
mA
°C
Rated
Voltage/
Application
Voltage
Case Size/
Case Height KEMET Part Number Energy Nominal
Capacitance
Maximum
DF at 25°C,
120 Hz
Maximum
ESR at
25°C, 100
kHz
Maximum
DC Leakage
at 25°C, Vr, 5
min charge
time
Maximum
Allowable
Ripple Current
at 45°C, 100
kHz
MSL Maximum
Operating
Temperature
7© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
7
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Table 1 – Ratings & Part Number Reference cont'd
Part Numbers marked in blue font are "Under Development." Engineering samples available upon request.
Part numbers marked in orange font are not recommended for new designs. Please use the T520 or T523 series instead.
(1) To complete KEMET part number, insert M for ±20% or K for ±10%. Designates capacitance tolerance. Refer to Ordering Information for additional
detail.
• Energy = ½ * Nominal Cap * (Application Voltage^2 * Dropout Voltage^2)/1,000; a 3 V dropout voltage was used for the calculation.
Va = Voltage applied
Vd = Voltage dropped
Derating Guidelines
100%
95%
90%
85%
80%
75%
% Rated Voltage
70%
65%
60%
55%
50%
−55 25 45
Temperature (ºC)
85 105
Recommended Application Voltage
VR > 10 V
Recommended Application Voltage
VR ≤ 10 V
Rated Voltage
Recommended Application Voltage
KO-CAPs are solid state capacitors that demonstrate no wearout mechanism when operated within their recommended
guidelines. While the KO-CAP can be operated at full rated voltage, most circuit designers seek a minimum level of
assurance in long term reliability, which should be demonstrated with data. A voltage derating can provide the desired level
of demonstrated reliability based on industry accepted acceleration models. Since most applications do require long term
reliability, KEMET recommends that designers consider a 10% voltage derating, according to the graphic above, for the
maximum steady state voltage.
Rated
Voltage/
Application
Voltage
Case Size/
Case Height
KEMET
Part
Number
Energy
(½CVa²) –
(½CVd²)
Nominal
Capacitance
Maximum
DF at 25°C,
120 Hz
Maximum
ESR at
25°C,
100 kHz
Maximum
DC Leakage
at 25°C, Vr, 5
min charge
time
Maximum
Allowable
Ripple Current
at 45°C, 100
kHz
MSL
Maximum
Operating
Temperature
VDC
EIA/mm
mJ
µF
%
mΩ
µA
mA
°C
16.0/12.8 7360/2.0 T545H187M016ATE055 13.9 180 20 55 288.0 1910 385
16.0/12.8 7360/2.0 T523H227M016APE070 17.0 220 10 70 352.0 2510 385
16.0/12.8 7360/2.0 T548H337M016APE070 25.5 330 10 70 528.0 2510 485
16.0/12.8 7360/2.0 T523H337M016APE070 25.5 330 10 70 528.0 2510 385
16.0/12.8 7360/2.0 T523H477M016APE070 36.4 470 10 70 752.0 2510 485
25.0/20.0 7360/2.0 T523H157M025APE070 29.3 150 10 70 375.0 2510 385
25.0/20.0 7360/2.0 T523H227M025APE070 43.0 220 20 70 550.0 2510 385
35.0/28.0 7360/2.0 T523H107M035APE070 38.8 100 10 70 350.0 2510 385
6.3/5.7 7343/4.3 T520X687M006ATE025 7.9 680 10 25 428.4 3150 3105
10.0/9.0 7343/4.0 T545Y337M010ATE035 11.9 330 10 35 330.0 2630 3105
16.0/12.8 7343/4.3 T545X157M016ATE040 11.6 150 10 40 240.0 2490 3105
16.0/12.8 7343/4.3 T545X227M016ATE035 17.0 220 10 35 352.0 2660 3105
16.0/12.8 7343/4.3 T545X337(1)016ATE025 25.5 330 10 25 528.0 3150 3105
VDC
EIA/mm
mJ
µF
%
mΩ
µA
mA
°C
Rated
Voltage/
Application
Voltage
Case Size/
Case Height KEMET Part Number Energy Nominal
Capacitance
Maximum
DF at 25°C,
120 Hz
Maximum
ESR at
25°C, 100
kHz
Maximum
DC Leakage
at 25°C, Vr, 5
min charge
time
Maximum
Allowable
Ripple Current
at 45°C, 100
kHz
MSL Maximum
Operating
Temperature
Voltage
Rating
Maximum
Recommended
Steady State Voltage
−55°C to 105°C
6.3 V ≤ VR ≤ 10 V 90% of VR
10 V < VR 80% of VR
VR = Rated Voltage
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8
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Ripple Current/Ripple Voltage
Permissible AC ripple voltage and current are related to equivalent series resistance (ESR) and the power dissipation
capabilities of the device.
Permissible AC ripple voltage which may be applied is limited by two criteria:
a. The positive peak AC voltage plus the DC bias voltage, if any, must not exceed the DC voltage rating of the capacitor.
b. The negative peak AC voltage, in combination with bias voltage, if any, must not exceed the allowable limits specied for
reverse voltage.
The maximum power dissipation by case size can be determined using the below table.
Temperature Compensation Multipliers
for Maximum Ripple Current
T ≤ 45°C
45° C < T ≤ 85°C
85°C < T ≤ 105°C
1.00
0.70
0.25
T = Environmental temperature
Using the P max of the device, the maximum allowable rms ripple current or voltage may be determined.
I(max) = √P max/R
E(max) = Z √P max/R
I = rms ripple current (amperes)
E = rms ripple voltage (volts)
P max = maximum power dissipation(watts)
R = ESR at specied frequency (ohms)
Z = Impedance at specied frequency (Ohms)
Refer to part number listings for permittable Arms limits.
Case Code EIA
Case Code
Maximum Power Dissipation (P max)
mWatts at 45°C with +30°C Rise
For T520/T521/T545 For T523/T548
T
3528-12
105
N/A
M
3528-15
120
N/A
B
3528-21
127
N/A
W
7343-15
180
395
V
7343-20
187
410
Y
7343-40
241
N/A
X
7343-43
247
N/A
G
7330-12
N/A
300
J
7360-15
200
440
H
7360-20
200
440
O
7360-43
300
N/A
The maximum power dissipation rating must be reduced with increasing environmental operating temperatures. Refer to the Temperature Compensation
Multiplier table for details.
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9
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Surge Voltage
Surge voltage is the maximum voltage (peak value) which may be applied to the capacitor. The surge voltage must not
be applied for periodic charging and discharging in the course of normal operation and cannot be part of the application
voltage. Surge voltage capability is demonstrated by application of 1,000 cycles at operating temperature. The parts are
charged through a 33 Ohm resistor for 30 seconds and then discharged though a 33 Ohm resistor for each cycle.
Rated Voltage (V) Surge Voltage (V)
–55°C to 105°C
2.5
3.3
6.3
8.3
10
13.2
16
21.1
20
26.4
25
33.0
35
46.2
Reverse Voltage
Polymer electrolytic capacitors are polar devices and may be permanently damaged or destroyed if connected in the wrong
polarity. These devices will withstand a small degree of transient voltage reversal for short periods as shown in the below
table.
Temperature Permissible Transient Reverse Voltage
25°C
15% of Rated Voltage
55°C
10% of Rated Voltage
85°C
5% of Rated Voltage
105°C
3% of Rated Voltage
125°C*
1% of Rated Voltage
*For series rated to 125°C
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10
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Table 2 – Land Dimensions/Courtyard
For T520/T521/T545
KEMET
Metric
Size
Code
Density Level A:
Maximum (Most) Land
Protrusion (mm)
Density Level B:
Median (Nominal) Land
Protrusion (mm)
Density Level C:
Minimum (Least) Land
Protrusion (mm)
Case EIA W L SV1 V2 W L SV1 V2 W L SV1 V2
T3528–12 2.35 2.21 0.92 6.32 4.00 2.23 1.80 1.12 5.22 3.50 2.13 1.42 1.28 4.36 3.24
B3528–21 2.35 2.21 0.92 6.32 4.00 2.23 1.80 1.12 5.22 3.50 2.13 1.42 1.28 4.36 3.24
M3528-15 2.35 2.21 0.92 6.32 4.00 2.23 1.80 1.12 5.22 3.50 2.13 1.42 1.28 4.36 3.24
W7343–15 2.55 2.77 3.67 10.22 5.60 2.43 2.37 3.87 9.12 5.10 2.33 1.99 4.03 8.26 4.84
V7343–20 2.55 2.77 3.67 10.22 5.60 2.43 2.37 3.87 9.12 5.10 2.33 1.99 4.03 8.26 4.84
Y¹ 7343–40 2.55 2.77 3.67 10.22 5.60 2.43 2.37 3.87 9.12 5.10 2.33 1.99 4.03 8.26 4.84
X¹ 7343–43 2.55 2.77 3.67 10.22 5.60 2.43 2.37 3.87 9.12 5.10 2.33 1.99 4.03 8.26 4.84
J7360-15 4.25 2.77 3.67 10.22 7.30 4.13 2.37 3.87 9.12 6.80 4.03 1.99 4.03 8.26 6.54
H7360-20 4.25 2.77 3.67 10.22 7.30 4.13 2.37 3.87 9.12 6.80 4.03 1.99 4.03 8.26 6.54
O¹ 7360-43 4.25 2.77 3.67 10.22 7.30 4.13 2.37 3.87 9.12 6.80 4.03 1.99 4.03 8.26 6.54
Density Level A: For low-density product applications. Recommended for wave solder applications and provides a wider process window for reow
solder processes.
Density Level B: For products with a moderate level of component density. Provides a robust solder attachment condition for reow solder processes.
Density Level C: For high component density product applications. Before adapting the minimum land pattern variations the user should perform
qualication testing based on the conditions outlined in IPC standard 7351 (IPC–7351).
1 Height of these chips may create problems in wave soldering.
L
S
W W
L
V1
V2
Grid Placement Courtyard
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11
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Table 2 – Land Dimensions/Courtyard cont'd
For T523/T548
KEMET
Metric
Size
Code
Density Level A:
Maximum (Most) Land
Protrusion (mm)
Density Level B:
Median (Nominal) Land
Protrusion (mm)
Density Level C:
Minimum (Least) Land
Protrusion (mm)
Case EIA W L SV1 V2 W L SV1 V2 W L SV1 V2
W7343-15 2.55 2.77 3.67 10.22 5.60 2.43 2.37 3.87 9.12 5.10 2.33 1.99 4.03 8.26 4.84
V7343-20 2.55 2.77 3.67 10.22 5.60 2.43 2.37 3.87 9.12 5.10 2.33 1.99 4.03 8.26 4.84
G7360-12 4.60 3.07 3.07 10.22 7.30 4.48 2.67 3.27 9.12 6.80 4.38 2.29 3.43 8.26 6.54
J7360-15 4.60 3.07 3.07 10.22 7.30 4.48 2.67 3.27 9.12 6.80 4.38 2.29 3.43 8.26 6.54
H7360-20 4.60 3.07 3.07 10.22 7.30 4.48 2.67 3.27 9.12 6.80 4.38 2.29 3.43 8.26 6.54
Density Level A: For low-density product applications. Recommended for wave solder applications and provides a wider process window for reow solder
processes.
Density Level B: For products with a moderate level of component density. Provides a robust solder attachment condition for reow solder processes.
Density Level C: For high component density product applications. Before adapting the minimum land pattern variations the user should perform
qualication testing based on the conditions outlined in IPC standard 7351 (IPC–7351).
L
S
W W
L
V1
V2
Grid Placement Courtyard
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12
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Soldering Process
The KEMET families of surface mount capacitors are
compatible with wave (single or dual), convection, IR,
or vapor phase reow techniques. Preheating of these
components is recommended to avoid extreme thermal
stress. KEMET's recommended prole conditions for
convection and IR reow reect the prole conditions of the
IPC/J–STD–020D standard for moisture sensitivity testing.
The devices can safely withstand a maximum of three reow
passes at these conditions.
Please note that although the X/7343–43 and O/7360-43
case size can withstand wave soldering, the tall prole
(4.3 mm maximum) dictates care in wave process
development.
Hand soldering should be performed with care due to the
diculty in process control. If performed, care should be
taken to avoid contact of the soldering iron to the molded
case. The iron should be used to heat the solder pad,
applying solder between the pad and the termination, until
reow occurs. Once reow occurs, the iron should be
removed immediately. “Wiping” the edges of a chip and
heating the top surface is not recommended.
Prole Feature Pb-Free Assembly
Preheat/Soak
Temperature Minimum (T
Smin
)150°C
Temperature Maximum (T
Smax
)200°C
Time (t
s
) from T
smin
to T
smax
) 60 – 120 seconds
Ramp-up Rate (T
L
to T
P
)3°C/second maximum
Liquidous Temperature (T
L
)217°C
Time Above Liquidous (t
L
) 60 – 150 seconds
Peak Temperature (TP)
250°C*
260°C**
Time within 5°C of Maximum
Peak Temperature (tP)
30 seconds maximum
Ramp-down Rate (T
P
to T
L
)6°C/second maximum
Time 25°C to Peak Temperature 8 minutes maximum
Note: All temperatures refer to the center of the package, measured on the
package body surface that is facing up during assembly reow.
* For Case Size height > 2.5 mm
** For Case Size height ≤ 2.5 mm
Storage
All KO-Cap are shipped in moisture barrier bags (MBBs) with desiccant andhumidity indicator card (HIC). These parts
are classied as moisture sensitivity level 3 (MSL3) or moisture sensitivity level 4 (MSL4) per IPC/JEDEC J-STD-020 and
packaged per IPC/JEDEC J–STD–033. Refer to Table 1 for part type specication. MSL3 species a oor time of 168H at
30°C maximum temperature and 60% relative humidity. MSL4 species a oor time of 72H at 30°C maximum temperature
and 60% relative humidity. Unused capacitors should be sealed in a MBB with fresh desiccant.
Calculated shelf life in sealed bag:
– 12 months from bag seal date in a storage environment of < 40°C and humidity < 90% RH
– 24 months from bag seal date in a storage environment of < 30°C and humidity < 70% RH
If baking is required, refer to IPC/JEDEC J–STD–033 for bake procedure
Time
Temperature
Tsmin
25
Tsmax
TL
TPMaximum Ramp-up Rate = 3°C/second
Maximum Ramp-down Rate = 6°C/second
tP
tL
ts
25°C to Peak
13© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
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13
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Construction
T520/T521/T545
Leadframe
(- Cathode)
Leadframe
(+ Anode)
Wire
Molded Epoxy
Case
Molded Epoxy
Case
Polarity
Bevel (+)
Weld
(to attach wire)
Silver Adhesive
Polarity Stripe (+) Detailed Cross Section
Wire
Tantalum
Ta2O5 Dielectric
(First Layer)
Carbon
(Third Layer)
Silver Paint
(Fourth Layer)
Polymer
(Second Layer)
T523/T548
Leadframe
(- Cathode)
Leadframe
(+ Anode)
Tantalum Wire
Weld
(to attach wire)
Detailed Cross Section
Tantalum
Wire
Tantalum
Polymer
(Second Layer)
Carbon
(Third Layer) Silver Paint
(Fourth Layer)
Polarity Stripe (+)
Molded Epoxy
Case
Ta2O5 Dielectric
(First Layer)
Spacer
14© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
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14
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Capacitor Marking
Polarity
Indicator (+)
Rated
Voltage
Picofarad
Code
KEMET
ID
Date
Code*
* 821 = 21ST week of 2018
Date Code *
1st digit = Last number of year 5 = 2015
6 = 2016
7 = 2017
8 = 2018
9 = 2019
2nd and 3rd digit = Week of the
year
01 = 1st week of the year to
52 = 52nd week of the year
15© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
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15
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Tape & Reel Packaging Information
KEMET’s molded chip capacitor families are packaged in 8 and 12 mm plastic tape on 7" and 13" reels in accordance with
EIA Standard 481: Embossed Carrier Taping of Surface Mount Components for Automatic Handling. This packaging system
is compatible with all tape-fed automatic pick-and-place systems.
Embossment
8 mm (0.315”) or
12 mm (0.472”)
Embossed carrier
Right hand
orientation
only
(+) (−)
Top tape thickness
0.10 mm (0.004”)
maximum thickness
180 mm (7.0”) or
330 mm (13.”)
Table 3 – Packaging Quantity
Case Code
Tape Width
(mm) 7" Reel* 13" Reel*
KEMET
EIA
T
3528-12
8
2,500
10,000
M
3528-15
8
2,000
8,000
B
3528-21
8
2,000
8,000
W
7343-15
12
1,000
3,000
V
7343-20
12
1,000
3,000
Y
7343-40
12
500
2,000
X
7343-43
12
500
2,000
J
7360-15
12
1,000
3,000
H
7360-20
12
1,000
3,000
O
7360-43
12
500
2,000
* No C-Spec required for 7" reel packaging. C-7280 required for 13" reel packaging.
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16
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Figure 1 – Embossed (Plastic) Carrier Tape Dimensions
P
0
T
F
W
Center Lines of Cavity
A
0
B
0
User Direction of Unreeling
Cover Tape
K
0
B
1
is for tape feeder reference only,
including draft concentric about B
0
.
T
2
ØD
1
ØD
0
B
1
S
1
T
1
E
1
E
2
P
1
P
2
Embossment
For cavity size,
see Note 1, Table 4
(10 pitches cumulative
tolerance on tape ±0.2 mm)
Table 4 – Embossed (Plastic) Carrier Tape Dimensions
Metric will govern
Constant Dimensions — Millimeters (Inches)
Tape Size D0
D
1
Minimum
Note 1
E1P0 P2
R Reference
Note 2
S
1
Minimum
Note 3
T Maximum
T
1
Maximum
8 mm
1.5 +0.10/−0.0
(0.059 +0.004/−0.0)
1.0
(0.039) 1.75 ±0.10
(0.069 ±0.004)
4.0 ±0.10
(0.157 ±0.004)
2.0 ±0.05
(0.079 ±0.002)
25.0
(0.984) 0.600
(0.024)
0.600
(0.024)
0.100
(0.004)
12 mm 1.5
(0.059)
30
(1.181)
Variable Dimensions — Millimeters (Inches)
Tape Size Pitch
B
1
Maximum
Note 4
E2 Minimum F P1 T2 Maximum W Maximum A0, B0 & K0
8 mm Single (4 mm) 4.35
(0.171)
6.25
(0.246)
3.5 ±0.05
(0.138 ±0.002)
2.0 ±0.05 or 4.0 ±0.10
(0.079 ±0.002 or 0.157 ±0.004)
2.5
(0.098)
8.3
(0.327)
Note 5
12 mm
Single (4 mm)
and Double
(8 mm)
8.2
(0.323)
10.25
(0.404)
5.5 ±0.05
(0.217 ±0.002)
2.0 ±0.05 (0.079 ±0.002) or
4.0 ±0.10 (0.157 ±0.004) or
8.0 ±0.10 (0.315 ±0.004)
4.6
(0.181)
12.3
(0.484)
1. The embossment hole location shall be measured from the sprocket hole controlling the location of the embossment. Dimensions of embossment
location and hole location shall be applied independent of each other.
2. The tape, with or without components, shall pass around R without damage (see Figure 4).
3. If S1 < 1.0 mm, there may not be enough area for cover tape to be properly applied (see EIA Standard 481–D, paragraph 4.3, section b).
4. B1 dimension is a reference dimension for tape feeder clearance only.
5. The cavity de ned by A0, B0 and K0 shall surround the component with suffi cient clearance that:
(a) the component does not protrude above the top surface of the carrier tape.
(b) the component can be removed from the cavity in a vertical direction without mechanical restriction, after the top cover tape has been removed.
(c) rotation of the component is limited to 20° maximum for 8 and 12 mm tapes (see Figure 2).
(d) lateral movement of the component is restricted to 0.5 mm maximum for 8 mm and 12 mm wide tape (see Figure 3).
(e) see Addendum in EIA Standard 481–D for standards relating to more precise taping requirements.
17© KEMET Electronics Corporation • KEMET Tower • One East Broward Boulevard T2079_SSD • 3/12/2019
Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
17
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Packaging Information Performance Notes
1. Cover Tape Break Force: 1.0 kg minimum.
2. Cover Tape Peel Strength: The total peel strength of the cover tape from the carrier tape shall be:
Tape Width Peel Strength
8 mm 0.1 to 1.0 Newton (10 to 100 gf)
12 and 16 mm 0.1 to 1.3 Newton (10 to 130 gf)
The direction of the pull shall be opposite the direction of the carrier tape travel. The pull angle of the carrier tape shall be
165° to 180° from the plane of the carrier tape. During peeling, the carrier and/or cover tape shall be pulled at a velocity of
300 ±10 mm/minute.
3. Labeling: Bar code labeling (standard or custom) shall be on the side of the reel opposite the sprocket holes. Refer to EIA
Standards 556 and 624.
Figure 2 – Maximum Component Rotation
Ao
Bo
°
T
°
s
Maximum Component Rotation
Top View
Maximum Component Rotation
Side View
Tape
Width (mm)
Maximum
Rotation (°
T)
8, 12 20 Tape
Width (mm)
Maximum
Rotation (
8, 12 20
°
S)
Typical Pocket Centerline
Typical Component Centerline
Figure 3 – Maximum Lateral Movement
0.5 mm maximum
0.5 mm maximum
8 mm & 12 mm Tape
Figure 4 – Bending Radius
RR
Bending
Radius
Embossed
Carrier
Punched
Carrier
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18
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Figure 5 – Reel Dimensions
AD(See Note)
Full Radius,
See Note
B(see Note)
Access Hole at
Slot Location
(Ø 40 mm minimum)
If present,
tape slot in core
for tape start:
2.5 mm minimum width x
10.0 mm minimum depth
W3(Includes
flange distortion
at outer edge)
W2(Measured at hub)
W1(Measured at hub)
C
(Arbor hole
diameter)
Note: Drive spokes optional; if used, dimensions B and D shall apply.
N
Table 5 – Reel Dimensions
Metric will govern
Constant Dimensions — Millimeters (Inches)
Tape Size A B Minimum C D Minimum
8 mm
178 ±0.20
(7.008 ±0.008)
or
330 ±0.20
(13.000 ±0.008)
1.5
(0.059)
13.0 +0.5/−0.2
(0.521 +0.02/−0.008)
20.2
(0.795)
12 mm
Variable Dimensions — Millimeters (Inches)
Tape Size N Minimum W1 W2 Maximum W3
8 mm 50
(1.969)
8.4 +1.5/−0.0
(0.331 +0.059/−0.0)
14.4
(0.567)
Shall accommodate tape
width without interference
12 mm
12.4 +2.0/−0.0
(0.488 +0.078/−0.0)
18.4
(0.724)
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19
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
Figure 6 – Tape Leader & Trailer Dimensions
Trailer
160 mm minimum
Carrier Tape
END START
Round Sprocket Holes
Elongated Sprocket Holes
(32 mm tape and wider)
Top Cover Tape
Top Cover Tape
Punched Carrier
8 mm & 12 mm only
Embossed Carrier
Components
100 mm
minimum Leader
400 mm minimum
Figure 7 – Maximum Camber
Carrier Tape
Round Sprocket Holes
1 mm maximum, either direction
Straight Edge
250 mm
Elongated Sprocket Holes
(32 mm & wider tapes)
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Fort Lauderdale, FL 33301 USA • 954-766-2800 • www.kemet.com
20
Solid State Drives/High Energy Applications
Polymer Electrolytic (KO-CAP®), 6.3 – 35 VDC
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