SANYO Electric Co., Ltd.
Electronic Device Company
'04-10
12
■The contents of this catalog are current as of September 2004, but
product names and specifications are subject to change for improvement
or discontinuation without notice. When ordering products, please be sure
to request a delivery specifications form and read it carefully.
■Do not use the OS-CON for life-threatening applications (space
equipment, aerial equipment, nuclear equipment, life-threatening medical
equipment, vehicle control equipment, etc.).
However, since there may be cases where conductive polymer aluminum
solid electrolytic capacitors (SVP, SVQP, SVPD, SEP and SEQP) are
adaptable with our special levels, be sure to consult with us, and
exchange delivery specifications with us before use.
■The performance, characteristics, and features of the products described
in this catalog are based on the products working alone under prescribed
conditions. Data listed here is not intended as a guarantee of performance
when working as part of any other product or device. In order to detect
problems and situations that cannot be predicted beforehand by
evaluation of supplied data, please always perform necessary
performance evaluations with these devices as part of the product that
they will be used in.
■When using the products listed in this catalog, please always be sure to
try to prevent any possible accidents or injury by designing products in a
careful and safe manner. If you have any questions concerning the use of
these products, please contact any of our sales representatives.
■For any products listed in this catalog that may constitute restricted trade
goods under overseas exchange or service trade laws, permission to
deliver according to law may be required before importing.
■Unauthorized duplication of this catalog in part or in whole is forbidden.
■Please understand that we cannot be held responsible for any damages
to the industrial properties of any third party that arise from the use or
application of the products listed in this catalog, with the exception of
those items directly related to method of construction.
About this catalog
1
Introduction of
Aluminum solid capacitors with Conductive polymer
Aluminum solid capacitors with Organic semiconductive electrolyte
For information on integration of OS-CON models and discontinued series, please see page 86
P24〜25
P32〜33 P34〜35
Large capacitance and low ESR
Guaranteed at 125°C
High voltage resistant Standard radial lead type
Guaranteed at 105°C for 3,000h
P26〜27
Guaranteed at 125°C
P28〜29
SMD standard product
P20〜21
Low ESR and large ripple current
P18〜19
Guaranteed at 125°C
85°Cx 85% guaranteed and rated 35V max.
P40〜41
P36〜37
P48〜49
P36〜37 P38〜39
P44〜45 P46〜47
P42〜43
Standard product
5 mm height (max.)
Miniaturization
Low ESL and low ESR
Large capacitance and low ESR
Low profile Long life span
Large capacitance and miniaturization
P30〜31
Large capacitance and low ESR
P22〜23
Low profile
2
Aluminum solid capacitors with Conductive polymer
Aluminum solid capacitors with Organic semiconductive electrolyte
Contents
Item Description Page
3. Series system
diagram
2.
Measures to Protect the
Environment
4. Specifications for
each series
5. Specifications for
the radial lead
type
6. Specifications for
the SMD type
＊Serise system diagram, Sketch of Case Size
＊Size list,ESRMatrix
＊
Conductive polymer type, Specifications for each series(Environmental product)
SVPD series : Vertical SMD, Guaranteed at 125
°C, Rated 35V max.
SVPC series : Vertical SMD, Large capacitance and low ESR
SVPB series : Vertical SMD, Low profile
SVPA series : Vertical SMD, Low ESR
SVQP series : Vertical SMD, Guaranteed at 125°C
SVP series : Vertical SMD
SEPC series : Radial lead type, Large capacitance and Low ESR
SEQP series : Radial lead type,
Guaranteed at 125°C
and high voltage resistant
SEP series :
Radial Lead type, Guaranteed at 105°C for 3,000h
＊Organic semiconductor type, Specifications for each series
SF series : 5mm height (max.)
SPA series : Low ESL and low ESR
SP series :
Large capacitance, Low ESR and Suitable for audio
SC series : Standard product
SA series : Large capacitance and miniaturization
SL series : Low profile
SH series : Long life span
SS series : Miniaturization
＊Explanation of part number
＊Specification of Lead process
＊Specification of taping product
＊Minimum packaging quantity
＊Explanation of part number
＊Taping Specifications
＊Minimum packaging quantity
＊Recommended Reflow conditions
12, 13
14 to 17
18, 19
20, 21
22, 23
24, 25
26, 27
28, 29
30, 31
32, 33
34, 35
36, 37
36, 37
38, 39
40, 41
42, 43
44, 45
46, 47
48, 49
50
50
51
51
52
52, 53
53
54
1. Operating
Precautions
＊Cautions for circuit design
＊Cautions for installation
＊Others 4 to 10
11
3
Contents
＊Structure and Manufacturing method of OS-CON
＊Electric characteristics of OS-CON
Item Description Page
7. Construction and
Characteristics
8. Reliability
9. Features
0.
Precautions
when using
OS-CON in
circuits
-.
Application
=. Information and wish
.
Questionnaire
＊Reliability test
＊Presumption of life span
＊Summary of OS-CON features
＊Explanation of the rush current suppression methods.
＊Examples of rush current suppression methods.
＊Sudden discharge current suppression.
＊Precautions when connecting an OS-CON and an
aluminum electrolytic capacitor in parallel.
Ripple removal
capability of OS-CON
＊Evaluation of ripple current removal capability in
comparison with other capacitors when the ambient
temperature of a switching power supply is set at
25°C, -20°C and 70°C.
High-speed back-up
capability ＊When current is consumed with large variation of
load at high-speed, capability of back-up capacitor is
compared with other electrolytic capacitors.
＊Necessity of OS-CON in low-pass filter circuit, and
comparison with aluminum electrolytic capacitors.
＊Mechanism and treatment method of abnormal
voltage oscillation of switching power supply.
Influence of output
ripples on images
Application of Switching
power supply to
smoothing capacitor
Application in low-
pass filter circuit
＊Comparative demonstration using OS-CON and
aluminum electrolytic capacitor showing noise from
switching power supply of CCD camera.
＊Sheet contained required information for the selection
of a Capacitor with switching power supply.
The data listed here is only representative of OS-CON, and does NOT show any guaranteed value.
Change in product specifications, dimensions, etc. may occur without prior notice. Be sure that when placing
order, please ask for specifications of each series in delivery, and read them well before use.
＊Integration of models and discontinued production
information.
55, 56
57 to 60
61 to 63
63, 64
65
66
67
68
69
70 to 75
76, 77
78, 79
80 to 84
85
86
87
OS-CON is uniquely structured solid aluminum electrolytic capacitor.
Please note the following points in order to take full advantages of the OS-CONs performance and to
ensure the most stable quality possible.
Crucial precautions [Important]
1. Polarity
OS-CON is a solid aluminum electrolytic capacitor with positive and negative electrodes.
Do not reverse the polarity when using. If it is used with the polarities reversed, increased leakage current or a
decreased life span may result.
2. Prohibited circuits
The OS-CON leakage current may become greater even if the soldering conditions adhere to the specification
requirements. The high temperature no-load test, high temperature and high humidity no-load test, rapidly
changing temperature test, etc may cause leakage current to become larger. Therefore, do not use the OS-CON in
the following circuits because trouble or failure may occur.
(a) High impedance voltage retention circuits
(b) Coupling circuits
(c) Time constant circuits
In addition to the leakage current fluctuation, capacitance may also fluctuate depending on operational
temperature and humidity. The fluctuation of the capacitance may cause problem if it is used as a time constant
capacitor, which is extremely sensitive to the fluctuation of the capacitance. Do not use it as a time constant
capacitor.
Do not use the OS-CON in circuits except those above if changes in the leakage current affects circuit operations.
If you plan to use 2 or more OS-CONs in a series connection, please contact us before use.
3. Compliance with rated performance
OS-CON must be used under rated performance prescribed in the specification. Operational and installation
condition must be carefully examined.
(a) Over-voltage exceeding the rated voltage should not be applied even for an instance since it may cause a short
circuit.
(b) Operating temperature (ambient of OS-CON) must be within the category temperature range of
specification.
(c) Do not apply current that exceeds the rated ripple current. When excessive ripple current is applied, the
OS-CON may result in shorter life due to the internal heat increase.
4. Applied voltage
(a) OS-CON can be applied with 100% of rated voltage except for 25V product.
In case of 25 V product, if the operating temperature is above 85 deg.C, derating voltage shown in the following
figure must be applied. If the temperature is below 85 deg.C, derating is not necessary. In any event, over
voltage exceeding the rated voltage must not be applied even for a moment.
(b) Sum of the DC voltage value and the ripple voltage peak values must not exceed the rated voltage.
(c) When DC voltage is low, negative ripple voltage peak value must not become a reverse voltage that exceeds
10 % of the rated voltage.
(d) Use the OS-CON within 20 % of the rated voltage for applications which may cause the reverse voltage during
the transient phenomena when the power is turned off or the source is switched.
4
Circuit designing
Instractionsfor
use
1. Operating Precautions
* Concerning SVPD series 25V
products, there are no problems
using them at 100% of the rated
voltage.
5
Instractionsfor
use
1. Operating Precautions
5. Sudden charge and discharge
Sudden charge and discharge may result in short circuits and the large Leakage current. Therefore, protection
circuits are recommended to design in when the following conditions are available.
(a) The rush current is over 10 A.
(b) The rush current is over 10 times of allowable ripple current of OS-CON.
A protection resistor (1 kΩ) must be inserted to the circuit during the charge and discharge when measuring
the leakage current.
6. Failure and life-span
The OS-CON failure rate in use is based on the failure rate level in the specification requirements (Upper category
temperature and category voltage adhere to JIS C 5003. The confidence level is 60% and the failure rate is 0.5
%/1000h.) and this ratio is low, however, failures may occur.
It is possible to cause a failure circuit even if OS-CONs have a lowest failure rate. As the above reason, please
insert a protection circuit to prevent unlikely event by accident. Meanwhile, please design your circuit using
OS-CON which cause no damage to social or person directly, or use after checking that it causes no problem even
if it fails.
The failure modes mainly have two types (a) and (b) as follows.
(a) Contingency failure
The contingency failure mainly has short circuit. The phenomenon of after short is on following.
(1) Phenomenon of after short circuit mode
(a) Resin sealing type (SC, SA, SL, SH, SS, SP, SPA, and SF series)
In the event a short circuit causes the current to become relatively small (less than approximately 3A for
φ10 and less than approximately 1A for φ6.3), the OS-CON itself will generate a little heat, but its
appearance will not be affected even when electricity is supplied continuously.
However, if the short circuit current value exceeds the mentioned values above, the temperature inside
the OS-CON will increase. When the temperature exceeds approximately 220°C, the impregnated
organic semiconductor melts and liquefies, the internal pressure is raised, and the liquefied organic
semiconductor and odorous gas are released from the space between the sealant and the aluminum
case and lead terminals. In this case, keep your face and hands away from the area.
(b) Rubber sealing type (SEP, SEQP, SEPC, SVP, SVQP, SVPA, SVPB, SVPC, and SVPD series)
In the event a short circuit causes the current to become relatively small (less than approximately 1A for
φ10, less than approximately 0.5A for φ8 and less than approximately 0.2A for φ6.3), the OS-CON itself
will generate a little heat, but its appearance will not be affected even when electricity is supplied
continuously.
However, if the short circuit current value exceeds the mentioned values above, the temperature inside
the OS-CON will increase, the internal pressure is raised, rubber sealing is turned over, and odorous gas
is released. In this case, keep your face and hands away from the area.
(2) If a short circuit occurs and odorous gas is released, either turn off the main power of the equipment or
unplug the power cord from the outlet.
(3) If a short circuit occurs, it may take from a few seconds to a few minutes before the organic semiconductor
liquefies and an odorous gas produces, depending on the conditions. It is recommended to set up a power
protection circuit to function during this time.
(4) If the gas comes in contact with eyes, rinse immediately. If the gas is inhaled, gargle immediately.
(5) Do not lick the OS-CONs electrolyte. If the electrolyte comes in contact with skin, wash it off with soap
immediately.
(6) The electrolyte, electrolytic paper, resin, sleeve, sealing rubber, and plastic spacer used in the OS-CON are
all combustible. When the current is extraordinarily large after a short circuit, in the worst case, the shorted-
out section in the lead terminal or inside the capacitor may ignite the resin and/or rubber. Pay attention to
the capacitor mounting method, mounting position, pattern design, etc.
(b) Performance characteristic and failure (life-span)
The OS-CONs characteristics can possibly change (Capacitance reduction and ESR increase) within the
specified range in specifications when it is used in the condition of Rated voltage, Electric and mechanical
performance.
When life span exceeded the specified guarantee time of Endurance and Damp heat, electric characteristic
might change and cause electrolyte insulation. This is called Open circuit mode.
(1) Please confirm the following item when select and design OS-CON.
1. Leakage current
Heat pressure from soldering and mechanical stress from transportation may cause the leakage current to become
large. In such a case, leakage current will gradually decrease by applying voltage less than or equal to the rated
voltage at a temperature within the upper category temperature. In close conditions to the upper category
temperature, the nearer the applied voltage is to the rated voltage, the faster the leakage current recovery speed is.
(Refer to below.)
2. Capacitor insulation
(a) Insulation in the marking sleeve and the laminate resin is not guaranteed. Be aware that the space between the
case and the negative electrode terminal is not insulated and has some resistance.
(b) Be sure to completely separate the case, negative lead terminal, positive lead terminal and PC board patterns
with each other.
3. Operating environmental restrictions
Do not use the OS-CON in the following environments.
(a) Places where water, salt water or oil can directly fall on it, and places where condensation may form.
(b) Places filled with noxious gas (hydrogen sulfide, sulfurous acid, nitrous acid, chlorine, ammonia, etc.).
(c) Places susceptible to ozone, ultraviolet rays and radiation.
6
Instractionsfor
use
1. Operating Precautions
Capacitance tolerance of rated capacitance.
Change rate in Capacitance to initial value after mounting.
Note: This item also applied to SMD type-reflow mounting of SANYO Recommended reflow
condition. Heat stress to OS-CON will be influenced by the different of reflow equipment,
board material, size, and numbers of mounting. Please check your reflow condition whether
it is within the above SANYO Recommendable Reflow Condition or not and confirm
OS-CON’s electric characteristic change before and after reflow.
The specification after mounting.
Leakage current less than or equal to the value of specification after voltage treatment.
Leakage current may increase and exceed the specification value after mounting. In such a
case, Leakage current will decrease and return back to specification after applying voltage.
(1) Change rate in Capacitance before and after Endurance test
(2) Change rate in Capacitance before and after Damp heat test
(1) The specification after Endurance test.
(2) The specification after Damp heat test.
(1) Leakage current is less than or equal to specification after Endurance test.
(2) Leakage current may increase and exceed the specification value after Damp heat test.
In such case, Leakage current will decrease and return back to specification after
applying voltage.
It is necessary to apply a frequency coefficient according to an usable frequency which is
beside 100kHz to 500kHz.
Capacitance
Capacitance
ESR
Leakage
current
Capacitance
ESR
Leakage
current
Ripple
current
Delivery
Mounting
SMD type:
Reflow soldering
Radial lead type
:
Flow soldering
In use
Others
Electric
performance Confirmation Item
Cautions
100
10
1
0.1
(Hrs.)
Leakage current (µA)
OS-CON leakage current restoration characteristics
10µF/16V (16V DC applied) OS-CON leakage current restoration characteristics
33µF/10V (Ambient temperature:65°C)
(Measured voltage:10V)
1 10 100
1000
1000
100
1000
10
1
0.1
(Hrs.)
Leakage current (µA)
1 10 100 1000
5V applied
8V applied
10V applied
*A sample that had stress
intentionally applied to
make the leakage current
larger was used to make
leakage current recovery
easy to understand.
4. PCB (PC board) design
(a) Avoid locating heat-generating components around the OS-CON and on the underside of the PC board
(underneath the OS-CON).
(b) Follow the recommendations given in the specifications for land patterns for SMD type PC board when designing
circuits.
(c) The pitch and diameter of PCB holes to which radial lead type of OS-CON is mounted should be designed to
conform to the dimensional tolerance stipulated in the specifications.
5. Parallel connection
A large amount of ripple current may be applied to the OS-CON when it is used in parallel with another capacitor.
Carefully select the type of capacitor.
6. Others
Design circuits after checking the following items.
(a) Electric characteristics are affected by temperature and frequency fluctuations. Design circuits after checking the
following items.
(b) When mounting an OS-CON on a double-sided PC board, extra PC board holes and the through holes for
connecting the front and back of the PCB must not exist underneath the OS-CON.
1. Considerations when soldering
The soldering conditions are to be within the range prescribed in specifications. If the specifications are not
followed, there is a possibility of the cosmetic defection, the intensive increase of leakage current, and the
capacitance reduction.
2. Things to be noted before mounting
(a) Do not reuse OS-CONs that have been assembled in a set and energized. Excluding OS-CONs that have been
removed for measuring electrical characteristics during a periodic inspection, OS-CONs cannot be reused.
(b) Leakage current may increase when OS-CONs are stored for long periods of time. In this case, we recommend
that you apply the rated voltage for 1 hour at 60°C – 70°C with a resistor load of 1 kΩ.
3. Mounting-1
(a) Mount after checking the capacitance and the rated voltage.
(b) Mount after checking the polarity.
(c) Do not drop the OS-CON on the floor. Do not use OS-CONs that have been dropped.
(d) Do not deform the OS-CON.
4. Mounting-2
(a) Mount after checking that SMD types of the OS-CONs terminal pitch and the PCB land pattern.
(b) Mount after checking that radial lead types of the OS-CONs terminal pitch and diameter of PCB holes. When an
automatic inserter is used to clinch the OS-CONs lead terminals, make sure it is not set too strong.
(c) Be careful to the shock force that can be produced by absorbers, product checkers, and centers on automatic
inserters and installers.
(d) Do not apply excessive external force to the lead terminal and the OS-CON itself.
Mounting precautions
7
Instractionsfor
use
1. Operating Precautions
5. Soldering with a soldering iron
(a) Set the soldering conditions (temperature, time) so that they fall within the stipulated range in the specifications.
(b) When the lead terminal for radial lead type must be processed because the lead pitch and the PCB holes in
spacing do not match, process it before soldering so that no stress is applied to the OS-CON itself.
(c) Do not subject the OS-CON itself to excessive stress when soldering.
(d) When a soldering iron is used to repair an OS-CON that has already been soldered once and needs to be
removed, remove it after the solder has been completely melted so that no stress is applied to the OS-CONs
lead terminal.
(e) Do not let the tip of the soldering iron touch the OS-CON itself.
(f) The leakage current value after soldering may increase a little (from a few µA to several hundred µA) depending
on the soldering conditions (preheating and solder temperature and time, PCB material and thickness, etc.). The
leakage current can be reduced through self-repair by applying voltage.
6. Flow soldering
(a) Do not use flow soldering for SMD type.
(b) Do not solder the OS-CON by submerging it in melted solder. Use the PCB to protect the OS-CON and only
solder the opposite side that the OS-CON is mounted on.
(c) Set the soldering conditions (soldering temperature, terminal immersion time) so that they fall within the
stipulated range in the specifications. The leakage current value after soldering may increase (from a few µA to
a few mA) depending on the soldering conditions (preheating and solder temperature and time, PCB material
and thickness, etc.). However, the leakage current can be reduced by applying voltage to set into operating
condition.
In regards to flow soldering, be sure to solder within the following conditions.
*1 When soldering 2 times, immersion time should be 10 + 1 sec. or less.
(d) Take care that flux does not adhere to anywhere expect the lead terminal.
(e) When soldering, take care that other components do not fall over and touch the OS-CON.
(f) Flow soldering under extremely abnormal conditions may reduce the capacitance of products after soldering.
7. Reflow soldering
(a) Reflow soldering is unapplicable to Radial lead type.
(b) Set the soldering conditions (soldering temperature, terminal submersion time) so that they fall within the
stipulated range in the specifications. The leakage current value after soldering may increase a little (from a few
µA to several mA) depending on the soldering conditions (preheating and solder temperature and time, PCB
material and thickness, etc.). The leakage current can be reduced through self-repair by applying voltage.
(c) Please contact SANYO for setting VPS soldering conditions
(d) In the case of reflow soldering, capacitive static electricity may decrease after soldering even when the soldering
conditions are within the required values.
8. Handling after soldering
(a) Do not tilt, bend or twist the OS-CON after it has been soldered on the PCB.
(b) Do not move the PCB with catching OS-CON itself by hand after soldering.
(c) Do not dump the OS-CON with objects after it has been soldered to the PCB. When stacking PCBs, make sure
that the OS-CON does not touch other PCBs or components.
(d) Do not subject the OS-CON to excessive stress after it has been soldered to PCB.
8
Instractionsfor
use
1. Operating Precautions
Temperature
Preheating
Soldering conditions 260 + 5°C or less 10 + 1 sec. or less 2 times or less *1
120 sec. or less 1 time
120°C or less (ambient temperature) Duration Flow number
9. Washing the PCB
Check the following items before washing the PCB with these detergents: high quality alcohol-based cleaning fluid
such as Pine-αST-100S, Clean thru 750H, 750L, 710M, 750K, or Techno Care FRW 14 through 17; or detergents
including substitute freon as AK-225AES and IPA.
(a) Use immersion or ultrasonic waves to clean for a total of less than five minutes. (SVP,SVQP,SVPA,SVPB,
SVPC,SVPD,SEP,SEQP and SEPC series are less than two minutes.)
(b) The temperature of the cleaning fluid should be less than 60 °C.
(c) Watch the contamination of the detergent (conductivity, pH, specific gravity, water content, etc.).
(d) After cleaning, do not store the OS-CON in a location subject to gases from the cleaning fluid or in an airtight
container. Dry the PCB and OS-CON with hot air (less than the maximum operating temperature). Please do not
heat (heat run, dry, etc.) soon after cleaning.
(e) Please contact SANYO for details about detergents and cleaning methods, and about detergents other than
those listed above.
10. Fixatives and coatings
(a) Select the appropriate covering and sealant materials for OS-CONs. In particular, make sure the fixative,
coating and thinner do not contain acetone.
(b) Before applying a fixative or coating, completely remove any flux residue and foreign matter from the area
where the board and OS-CON will be jointed together.
(c) Allow any detergent to dry before applying the fixative or coating.
(d) Please contact SANYO for fixative and coating heat curing conditions.
11. Precautions with completed board
(a) Do not touch the lead terminals of OS-CON directly.
(b) Do not use electric conductors to cause short circuits between the OS-CONs lead terminals. Do not subject the
OS-CON to conductive solutions such as acids and alkaline water solutions.
(c) Check the installation environment of the board the OS-CON is installed in.
(d) Age the board at conditions that fall below the capacitors ratings.
(e) It is recommended that the board be used at room temperature and in ordinary humidity.
1. Storage conditions
(a) Do not store the OS-CON at high temperatures and high humidity. Store it in a location that is not subject to
direct sunlight and that has temperatures less than 5°C to 35°C and a relative humidity less than 75 %
generally.
(b) To keep good solderability, store the OS-CONs in its plastic bag under shipping condition. SMD types (SVP,
SVQP, SVPA, SVPB, SVPC and SVPD series) are sealed up in specifically designed aluminum laminate bags
to prevent deterioration in characteristic and solderability before and after reflows resulting from moisture
absorption.
(c) To keep good solderability, store radial lead types packed in bags for not more than one year (after delivery),
and radial lead types with taping and SMD types for not more than six months (after delivery) before
opening.(Refer to the table on the next page.)
(d) Open the bags just before mounting, and use up all products once opened. In case of leftovers, put radial lead
types packed in bags, SMD types and unpackaged ones back into the storage bags (specifically designed
aluminum laminate bags for SMD types), and seal up the opening with tape etc. Put radial lead types with
taping in plastic bags as they are put into storage boxes and seal up the opening with tape etc. In case of
storage after opening, please follow the storage term as stated in the table below.
(e) Do not store the OS-CON in damp conditions such as with water, salt spray, or oil spray, and high humidity.
(f) Do not store the OS-CON in places filled with noxious gas (hydrogen sulfide, sulfurous acid, nitrous acid,
chlorine, ammonia, etc.).
Storage and Disposal
9
1. Operating Precautions
Instractionsfor
use
(g) Do not store the OS-CON in places susceptible to ozone, ultraviolet rays and radiation.
The moisture absorption level of the SMD type is shown below.
2. Disposal
OS-CON comprises solid organic compounds, various metals, resin, rubber, etc. Treat it as industrial waste when
disposing of it. In case of disposing a large amount of OS-CON, SANYO can dispose on behalf.
Before unseal After unseal
Within 6 months after delivery
(Unopened condition)
Within 1 year after delivery
(Unopened condition)
Within 6 months after delivery
(Unopened condition)
SMD type
Radial lead type
bag packing product
Radial lead type
taping product
Within 30 days from opening
(
Packaged condition with carrier tape
)
Within 7 days from opening
(1 week)
Within 7 days from opening
(1 week)
Note:
In case of some problems concerning industrial possessive rights of third party by using this product, we don’t
take responsibility except for what to be directly conceded with structure processes OS-CON. Please design
with safety measures taking into consideration any social damage, such as personal or fire accident when
using this product.
10
Instractionsfor
use
1. Operating Precautions
Floor Life Storage Condition
LEVEL Time
4Week
Condition
≦30℃/60%RH Packed with carrier tape
(Required standard : IPC/JEDEC J-STD-020B)
2a
We are working on complete removal of environmental hazardous substances from the OS-CON, in order to
conform to EU RoHS Directive (refer to below) coming into effect from July 2006 and to green procurement
introduced in many companies.
【RoHS Directive】
【Restriction of the use of certain hazardous substances in electrical and electronic equipment 】
• EU environmental regulation
• RoHS aims to improve the regulations for hazardous substances in electrical and electronic equipment, and to
minimize the hazardous effects on environment and to people’s health from the production process up to and
including the disposal process.
• RoHS prohibits the use of 6 substances including cadmium, lead, hexavalent chromium, mercury, polybrominated
biphenyls (PBBs), and polybrominated diphenyl ethers (PBDEs).
〔OS-CON Measures for the RoHS Directive〕
*1 Contact us about the detailed status because a few specific special products do not meet the RoHS Directive
yet.
Also, contact us concerning the status of sleeve material change.
11
2. Measures to Protect the Environment
Measuresto
Protectthe
Environment
TM
Measures status *1
Conductive polymer
OS-CON
Organic semiconductor
OS-CON
Already in conformation
Sleeve material is being changed from PVC to PET
(Complete removal of lead and phtalic esters)
12
Seriessystem
diagram
3. SERIES SYSTEM DIAGRAM
SMD
Radial
Radial
SVQP Series
P26〜27
Guaranteed at 125℃
SVP Series
P28〜29
standard
SVPA Series
P24〜25
Low ESR and large ripple current
SVPC Series
P20〜21
Large capacitance and low ESR
・Environmental product ・Lead-free reflow product
・Environmental product ・Lead-free flow product
〈Aluminum solid capacitors with Conductive polymer〉
〈
Aluminum solid capacitors with Organic semiconductive electrolyte
〉
High
Temp.
Large
Cap.
Low
ESR
SS Series
P48〜49
Miniaturization
SL Series
P44〜45
Low profile
SP Series
P38〜39
Large capacitance
and low ESR
SC Series
P40〜41
Standard
SH Series
P46〜47
Long life span
SA Series
P42〜43
Large capacitance
and miniaturization
Long
life.
Long
life.
Low
profile
Low
ESR
Low
ESR
SPA Series
P36〜37
Low ESL and low ESR
Low
ESL
Low
profile
SF Series
P36〜37
5mm height (max.)
Low
profile
Large
Cap.
SEQP Series
P32〜33
Guaranteed at 125℃
High voltage resistant
SEP Series
P34〜35
Guaranteed for 3,000h
〈Aluminum solid capacitors with Conductive polymer〉
High
Temp. SEPC Series
P30〜31
Large capacitance and low ESR
SVPD Series
P18〜19
High voltage resistant and guaranteed at 125°C
SVPB Series
P22〜23
Low profile
Low
profile
High
Voltage
13
Seriessystem
diagram
※Profile of case size are all expressed in maximum values.
6.0
φ4.0
6.0
φ5.0
6.0
φ6.3
6.0
φ8.0
6.0
φ10.0
A' B' C' E'
5.0
φ8.0
E1F'
10.0
φ8.0
10.0
φ10.0
9E 9F
7.8
φ4.0
7.8
φ5.0
7.8
φ6.3
10.8
φ6.3
11.5
φ8.0
11.5
φ10.0
21.0
φ10.0
26.0
φ16.0
23.0
φ12.5
AB C D E F
F0HG
• Sketch of Case Size (unit : mm)
SMD type with conductive polymer electrolyte
Radial lead type with conductive polymer electrolyte
Radial lead type with Organic semiconductive electrolyte
(Size code)
(Size code)
(Size code)
(Size code)
3. SERIES SYSTEM DIAGRAM
C6 E7 F8 E12 E13
6.0
φ6.3
7.0
φ8.0
8.0
φ10.0
12.0
φ8.0
13.0
φ8.0
F13
13.0
φ10.0
φ4.0
5.5
4.3
4.3
φ5.0
6.0
5.3
5.3
φ8.0
7.0
8.3
8.3
φ8.0
12.0
8.3
8.3
φ10.0
8.0
10.3
10.3
φ10.0
12.7
10.3
10.3
φ6.3
6.0
6.6
6.6
φ6.3
5.5
6.6
6.6
φ6.3
5.0
6.6
6.6
A5 B6 C6 E7 F8C5 C55 E12 F12
E9
9.0
φ8.0
14
●…Conductive polymer type ●…Organic semiconductor type
Seriessystem
diagram
3. SERIES SYSTEM DIAGRAM
■Size List
V
1
1.5
2.2
3.3
4.7
6.8
8.2
10
15
18
22
27
33
39
47
56
68
82
100
120
150
180
220
270
330
390
470
560
680
820
1000
1200
1500
1800
2700
2200
SP(F)
SP(F0)
SVPA(B6)
SVPB(C5)
SVP(C6)
SVPA(C6),
SVPC(B6)
SVPA(E7)
SVPC(C6)
SVPC(E7),
SVP(E12),
SEP(E12)
SEPC(E9)
SEPC(E9,E13),
SVPA(F8),SVPC(E12)
SP(F)
SVPC(E12),SVP(F12),
SEP(F13)
SEPC(F13),SVPC(F12)
μF 2 2.5
SVP(A5)
SVP(B6)
SVPA(B6),SVP(B6),
SS(C')
SVPB(C5),
SEP(C6),
SP(C')
SVPA(C6),SVPC(B6),
SEQP(C6),SVP(C6,E7),
SVQP(C6),SEP(C6),
SP(C),SL(E'),SS(D)
SVQP(E7),SEP(E7),
SF(E1),SP(E'),SL(F')
SVPA(E7),SP(D)
SVPC(C6),SEQP(E7),
SVP(E7),SEP(E7),SP(F')
SEP(F8),SS(F)
SEPC(E9,E12,E13),
SVPC(E7),SEQP(E12),
SVP(E12),SEP(E12),
SPA(9E),SP(E)
SEPC(E13),SVPA(F8),
SVPC(E7),SEQP(F8),
SVP(F8),SEP(F8)
SEPC(F13),SPA(9F),SP(F)
SP(F)
SVPC(E12),SEQP(F13),
SVP(F12),SEP(F13)
SP(F0)
SP(G)
4
SC(A),SL(A'),SH(A)
SC(B),SL(B'),SH(B),
SS(A')
SVP(A5)
SC(C),SS(B')
SVPA(B6),SVP(B6),
SA(C),SH(C)
SP(C')
SVPB(C5),SEQP(C6)
SVP(C6),SVQP(C6),SEP(C6)
SVPC(B6),
SVP(C6),
SVQP(C6),SL(E')
SVPA(C6),SVP(C6),SP(C)
SEQP(E7),SVQP(E7),
SEP(E7),SF(E1),SP(E'),
SA(E),SL(F'),SH(E)
SVPA(E7),
SVPC(C6),
SVP(E7,F8),
SVQP(E7),
SP(F',D),SS(E)
SEQP(F8),SVP(F8),
SEP(F8),SA(F),SH(F)
SVPC(E7),SP(E)
SVPA(F8),SEQP(E12),
SVP(F8,E12),
SEPC(E9,E13),SEP(E12)
SEPC(F13),SP(F)
SEPC(F13)
SVPC(E12),SEQP(F13),
SVP(F12),SEP(F13)
SA(H)
6.3
SVP(A5),
SC(A),SL(A'),SH(A)
SVP(A5)
SVP(A5),SC(B),
SL(B'),SH(B),SS(A')
SVP(A5)
SC(C),SL(C'),SS(B')
SVP(B6),SL(C')
SVP(C6),
SC(D),SL(C')
SVPD(C6),SEQP(C6),SVP(C6),
SVPB(C5),SVQP(C6),SEP(C6),
SP(C')
SVPA(C6),SVPC(B6)
SA(D),SL(E'),SH(D)
SP(C)
SP(E'),SL(F'),SS(D)
SEQP(F7),SVP(E7),SVPC(C6)
SVQP(E7),SEP(E7)
SVPA(E7),
SVP(E7,F8),
SVQP(E7),SP(D),
SS(E)
SP(F')
SA(F),SH(F)
SEQP(F8),SVP(F8),SVPC(E7)
SEP(F8),SP(E)
SVPA(F8),SEQP(E12),
SVP(F8,E12),
SEP(E12),SS(F)
SP(F)
SEQP(F13),
SVP(F12),SEP(F13)
10
15
3. SERIES SYSTEM DIAGRAM
■Size List
●…Conductive polymer type ●…Organic semiconductor type
Seriessystem
diagram
V
1
1.5
2.2
3.3
4.7
6.8
8.2
10
15
18
22
27
33
39
47
56
68
82
100
120
150
180
220
270
330
390
470
560
680
820
1000
1200
1500
1800
2200
2700
μF
SC(A),SL(A'),SH(A)
SVP(A5),
SC(A),SL(A'),SH(A)
SC(B),SL(B'),SH(B),
SS(A')
SC(B),SL(B'),SH(B),
SS(A')
SL(C'),SS(B')
SVP(B6),
SC(C),SL(C'),SS(B')
SVP(B6),SC(D)
SVPB(C5),SP(C'),SC(D),
SA(C),SH(C),SS(C')
SVPA(C6),SEQP(C6),SVP(C6),
SVQP(C6),SEP(C6),SVPC(B6)
SP(C),SA(D),SL(E'),
SH(D)
SVP(E7)
SVPC(C6),SP(E'),SL(F'),
SS(D)
SVPC(E7)
SVPD(E7),SVPA(E7),SEQP(E7),
SVP(E7),SVQP(E7),SEP(E7)
SVP(F8),
SP(F',D),SA(E),SH(E)
SEQP(F8),SVP(F8),SEP(F8),
SA(F),SH(F)
SVPA(F8),
SEQP(E12),
SVP(F8,E12),
SEP(E12),SP(E)
SEPC(E12),SP(F)
SEQP(F13),SVP(F12),
SEP(F13)
SEPC(E13),SA(G)
SA(H)
16
SS(A')
SS(A')
SS(B')
SS(B')
SVP(B6),SS(C')
SVPB(C5),SA(C),
SH(C),SS(C')
SVPB(C55),SEQP(C6),
SVP(C6),SVQP(C6),
SEP(C6),SP(C'),SA(C),
SH(C),SS(C')
SVP(C6)
SVP(E7),SEP(E7),
SP(C),SA(D),SH(D)
SEQP(E7),SVP(E7),
SVQP(E7),SEP(E7),
SP(E'),SA(E),SH(E),SS(D)
SVP(F8),SEP(F8)
SEQP(F8),SVP(F8),
SEP(F8),SP(F',D),
SA(E),SH(E)
SVP(E12),
SEQP(E12),
SEP(F8,E12),
SA(F),SH(F),SS(E)
SP(E)
SEQP(F13),SVP(F12),
SEP(F13),SS(F)
SP(F)
20
SC(A),SL(A'),SH(A)
SC(A),SL(A'),SH(A)
SC(B),SL(B'),SH(B)
SC(B),SL(B'),SH(B)
SC(C),SL(C'),SH(C)
SVP(C6),SEP(C6),
SP(C'),SC(C),
SL(C'),SH(C)
SVPD(C6),SVP(E7),
SEP(E7),SP(C),
SC(C),SH(C)
SC(D),SL(E'),SH(D)
SP(D)
SVPD(E7),
SVP(F8),SEP(F8),
SC(E),SL(F')
SVP(E12),SEP(E12),
SP(E),SC(F)
SVPD(F8)
SVPD(E12),SC(F)
SVP(F12),SEP(F13),
SP(F)
SVPD(F12)
25
SC(A)
SC(B)
SC(B)
SC(C)
SC(D)
SC(D)
SC(E)
SC(F)
30
SEQP(E12)
SEQP(F8)
SEQP(E7)
SVPD(E7)
SVPD(F8)
SVPD(E12)
32 35
16
●…Conductive polymer type ●…Organic semiconductor type
Seriessystem
diagram
3. SERIES SYSTEM DIAGRAM
■ESR Matrix
8
7
V
mΩ
10
11
12
13
14
15
16
17
18
19
20
22
24
25
27
28
29
30
32
34
35
36
40
45
48
50
55
60
65
70
75
80
90
100
SEPC(E9),SP(F0)
9
SVPC(E12),SEPC(F13)
SVPC(E12)
SP(F)
SVP(F12),
SEP(F13),
SP(F)
SVP(E12),
SEP(E12)
SVPA(F8)
SVP(C6)
SVPC(B6)
SVPA(C6,E7),
SVPC(E7)
SVPC(C6)
SVPA(B6),
SVPC(B6)
SVPB(C5)
110
120
150
180
200
220
240
250
260
280
300
350
400
450
23
21
2V/2.5V
SP(F0)
SP(G)
SPA(9F)
SEPC(E9,E13) SEPC(E9,E13,F13)
SVPC(E12)
SVPC(E12,F12),SEQP(F13),
SVP(F12),SEP(F13),SPA(9E),
SP(F)
SEQP(E12),SVP(E12),
SEP(E12),
SP(E)
SVPA(F8),SP(D)
SVPC(B6)
SVPA(C6,E7),
SVPC(E7)
SVPC(C6)
SP(F')
SEQP(F8),SVP(F8),
SEP(F8),SS(F)
SVPC(C6)
SP(E')
SVPA(B6),
SVPC(B6),SF(E1)
SEQP(E7),SVP(E7),SVQP(E7)
SEP(E7),SP(C)
SVPB(C5),SEQP(C6),SVP(C6),
SVQP(C6),SEP(C6),SP(C'),
SS(D)
SL(F')
SVP(B6),SL(E')
SVP(B6),SS(C')
SVP(A5)
4V
SVPC(E12),SEQP(F13),SVP(F12),
SEP(F13),
SEPC(F13)
SEPC(E9,E13)
SEPC(F13)
SP(F)
SVPC(C6),SEQP(E12),SVP(E12),
SEP(E12),SA(H)
SP(E)
SVPA(F8),SP(D)
SVP(C6)
SVPA(C6,E7),
SVPC(E7)
SVPC(B6),SEQP(F8),SVP(F8),
SEP(F8),SA(F),SH(F)
SVPC(C6)
SP(F')
SVPA(B6),
SVPC(B6),SP(E'),
SA(E),SH(E),SS(E)
SF(E1)
SEQP(E7),SVP(E7),SVQP(E7),
SEP(E7),SP(C)
SVPB(C5),SVP(C6),SVQP(C6),
SP(C')
SVP(C6),SVQP(C6),
SEP(C6)
SA(C),SL(F'),SH(C)
SL(E')
SVP(B6),SC(C)
SC(B),SL(B'),SH(B)
SS(B')
SVP(A5)
SC(A),SH(A)
SL(A'),SS(A')
6.3V
SEQP(F13),SVP(E12),SEP(F13)
SP(F)
SEQP(E12),SVP(E12),
SEP(E12),
SP(E)
SVPA(F8)
SVPC(E7)
SEQP(F8),SVP(F8),SEP(F8),
SP(D),SS(F)
SVPC(C6),SA(F),SH(F)
SP(F')
SVPA(C6,E7),SVPC(B6)
SVP(F8),SS(E)
SP(E')
SEQP(E7),SVP(E7),SVQP(E7),
SEP(E7)
SVPB(C5),SP(C),SS(D)
SVPD(C6),SEQP(C6),SVP(C6),
SVQP(C6),SEP(C6),SP(C')
SVP(C6),
SA(D),SH(D)
SC(D),SL(F')
SL(E')
SVP(B6),
SC(C),SL(C')
SL(C')
SC(B),SL(B'),SH(B),
SS(B')
SVP(A5)
SVP(A5)
SVP(A5)
SC(A),SH(A)
SS(A')
SL(A')
10V
17
3. SERIES SYSTEM DIAGRAM
●…Conductive polymer type ●…Organic semiconductor type
Seriessystem
diagram
■ESR Matrix V
mΩ
SA(H)
SEQP(F13),SVP(F12),SEP(F13)
SEPC(F13)
SEPC(E12)
SVPA(C6)
SVPC(E7)
SP(F)
SEQP(E12),SVP(E12),
SEP(E12),
SP(E),SA(G)
SP(D)
SA(F),SH(F)
SVPA(F8)
SVPA(E7),SEQP(F8),SVP(F8),
SEP(F8),SA(E),SVPC(C6),
SH(E)
SP(F')
SP(E')
SVPA(C6),SVPC(B6),SVP(F8)
SVPD(E7),SEQP(E7),SVP(E7),
SVQP(E7),SVPB(C5),SEP(E7)
SVP(E7),SP(C)
SEQP(C6),SVP(C6),SVQP(C6),
SEP(C6),SP(C'),
SS(D)
SA(D),SH(D)
SL(F')
SC(D),SA(C),SL(E'),
SH(C)
SVP(B6),SC(C)
SL(C'),SS(C')
SVP(B6)
SC(B),SH(B),SS(B')
SC(B),SL(B'),SH(B),
SL(B')
SVP(A5)
SC(A),SH(A)
SL(A'),SS(A')
16V
SEQP(F13),SVP(F12),
SEP(F13),SP(F)
SEQP(E12),
SVP(E12),SEP(E12),
SP(E)
SP(D),SA(F),SH(F),
SS(E,F),
SP(F')
SP(E'),SA(E),SH(E)
SEQP(F8),SVP(F8),
SEP(F8),SA(E),SH(E)
SVPB(C55),
SEP(F8)
SVPB(C5),SEQP(E7),SVP(E7),
SVQP(E7),SEP(E7),SP(C)
SP(C')
SEQP(C6),SVP(C6),SVQP(C6),
SEP(C6),SS(D)
SA(C,D),SH(C,D)
SA(C),SH(C)
SS(C')
SVP(B6)
SS(B')
SS(B')
SS(A')
20V
SP(F)
SVPD(F12),
SVP(F12),SEP(F13)
SVPD(E12),SVP(E12),
SEP(E12),SP(E)
SC(F)
SP(D),SC(E)
SVP(F8),SEP(F8)
SVPD(C6)
SVPD(E7)
SVPD(F8)
SP(C)
SVP(E7),SEP(E7),
SP(C')
SC(D),SL(F'),SH(D)
SL(E')
SVP(C6),SEP(C6)
SC(C),SH(C)
SC(C),SL(C'),SH(C)
SC(B),SH(B)
SL(B')
SC(A),SH(A)
SC(A),SH(A)
SL(A')
SL(A')
25V
SEQP(E12) SVPD(E12)
SVPD(F8)
SVPD(E7)
SEQP(F8)
SEQP(E7)
SC(F)
SC(E)
SC(D)
SC(C)
SC(B)
SC(B)
SC(A)
30V 32V 35V
8
7
10
11
12
13
14
15
16
17
18
19
20
22
24
25
27
28
29
30
32
34
35
36
40
45
48
50
55
60
65
70
75
80
90
100
9
110
120
150
180
200
220
240
250
260
280
300
350
400
450
23
21
■Specifications
■Dimensions
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 125°C .
※2 Refer to Page 54 for reflow soldering conditions.
(unit : mm)
■Size List
18
RV : Rated voltage
(SV) : Surge (125°C)
φD
L
P
R
C
W
0.2max.
H
（＋）
The SVQP series guaranteed 125°Chighvoltageresistancewasimproved
toaratedmaximumof35V.This product is very reliable, guaranteeing 85°C
× 85% performance. Suitable for use in smoothing circuits of vehicle-
mounted equipment, industrial equipment, etc.
This product can support lead free-reflow.(※2).
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
Marking : Polarity( ), Rated voltage,
(Purple) SVPD Rated capacitance, Lot.No.
※For the minimum packing quantity, please refer to page 53.
Conductive polymer type
SVPDSeries
Guaranteed at 125°C,
85°C×85% guaranteed,Rated 35V,
Rated 35V max.
C6
E7
F8
E12
F12
φD+0.5max.
6.3
8.0
10.0
8.0
10.0
L
W±0.2
5.9
6.9
7.9
11.9
12.6
H±0.2
6.6
8.3
10.3
8.3
10.3
6.6
8.3
10.3
8.3
10.3
C±0.2
7.3
9.0
11.0
9.0
11.0
R
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
0.8 to 1.1
0.8 to 1.1
P±0.2
2.1
3.2
4.6
3.2
4.6
Size Code
RV
（SV）
µ
F
10.0
（11.5）16.0
（18.4）25.0
（29.0）35.0
（40.0）
8.2
10
18
22
39
47
56
82 E7
C6
E7
F8
E12
F12
E7
F8
E12
C6
+0.1
-0.4
Items Conditions Characteristics
-55°C to +125°C
M : ±20%
Less than or equal to the value of Table1
Less than or equal to the value of Table1
Less than or equal to the value of Table1
Within ±20%
2 times or less than an initial standard
2 times or less than an initial standard
Below an initial standard
Within ±20%
2 times or less than an initial standard
2 times or less than an initial standard
Below an initial standard
Within ±10%
1.3 times or less than an initial standard
1.3 times or less than an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+125°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
Based the value at
100KHz，+20°C
125°C, 2,000h, Rated
voltage applied
85°C, 85 to 90% RH,
1,000h,
Rated voltage applied
(VPS) (230°C X 75s)
After 2 minutes
※1
※2
19
■Table1 SVPD Series Characteristics List
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 Tx : Ambient temperature
25SVPD10M
10SVPD56M
35SVPD8R2M
25SVPD22M
16SVPD82M
35SVPD18M
25SVPD39M
35SVPD22M
25SVPD47M
25SVPD82M
25
10
35
25
16
35
25
35
25
25
10
56
8.2
22
82
18
39
22
47
82
65
45
70
48
40
60
45
50
30
28
474
538
400
580
670
550
664
700
943
1202
1500
1700
1300
1835
2120
1800
2100
2300
2980
3800
0.10
0.12
0.10
0.10
0.12
0.10
0.10
0.12
0.12
0.12
50
112
57
110
262
126
195
154
235
410
Size
Code
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
Part Number
※1
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.) 100kHz (mArms)
Rated ripple current
Allowable ripple current
105℃＜Tx≦125℃
Tx≦105℃
■Recommended land pattern
dimension of PWB (unit : mm)
c
a
b
※3
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
E7
F8
E12
F12
C6
C6
E7
F8
E12
F12
ab c
2.1
2.8
4.3
2.8
4.3
9.1
11.1
13.1
11.1
13.1
1.6
1.9
1.9
1.9
1.9
Size Code
■Dimensions
※For the minimum packing quantity, please refer to page 53.
B6
C6
E7
E12
F12
φD
+
0.5max.
5.0
6.3
8.0
8.0
10.0
W
±
0.2
5.9
5.9
6.9
11.9
12.6
5.3
6.6
8.3
8.3
10.3
H
±
0.2
5.3
6.6
8.3
8.3
10.3
C
±
0.2
6.0
7.3
9.0
9.0
11.0
R
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
0.8 to 1.1
0.8 to 1.1
P
±
0.2
1.4
2.1
3.2
3.2
4.6
Size Code
(unit : mm)
■Size List
20
RV : Rated voltage (SV) : Surge (room temperature)
The SVPC series capacitor has larger capacitance than SVPA series.
Adopt this series to reduce the size of equipment and circuits.
This product can support lead free-reflow. (※2).
Marking : Polarity( ), Rated voltage
(Purple) PC(B6, C6), SVPC(E7, E12),
Rated capacitance, Lot.No.
■Specifications
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 105¡C .
※2 Refer to Page 54 for reflow soldering conditions.
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φD
L
P
R
C
W
0.2max.
H
（＋）
Conductive polymer type
SVPCSeries Large capacitance, low ESR
RV
（SV）
2.5
（3.3）4
（5.2）6.3
（8.2）10.0
（11.5）16.0
（18.4）
39
68
100
120
150
180
220
270
330
390
560
680
820
1200
1500
2700
B6
C6
E7
E12
E12
F12
B6
C6
E7,E12
E12
E12
B6
C6
E7
E12
B6
C6
E7
B6
C6
E7
µ
F
L+0.1
-0.4
Items Characteristics
-55¡C to +105¡C
M: –20%
Less than or equal to the value of Table5
Less than or equal to the value of Table5
Less than or equal to the value of Table5
Within –20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard
Within –20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within –10% (–15% for 2.5V)
1.3 times or less than an initial standard
1.3 times or less than an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55¡C
+105¡C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20¡C
Z / Z 20¡C
0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
Based the value at
100KHz，+20°C
105°C, 2,000h, Rated
voltage applied
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
(VPS) (230°C X 75s)
After 2 minutes
※1
※2
Conditions
B6
16SVPC39M
10SVPC68M
6SVPC100M
6SVPC100MY
4SVPC150M
4SVPC150MY
2R5SVPC180M
2R5SVPC180MY
16SVPC68M
10SVPC120M
6SVPC220M
6SVPC220MV
4SVPC330M
4SVPC330MY
2R5SVPC390M
16SVPC120M
10SVPC270M
6SVPC390M
4SVPC560M
2R5SVPC680M
6SVPC820M
4SVPC560MX
4SVPC1200M
4SVPC1500M
2R5SVPC820M
2R5SVPC1500M
2R5SVPC2700M
16
10
6.3
6.3
4
4
2.5
2.5
16
10
6.3
6.3
4
4
2.5
16
10
6.3
4
2.5
6.3
4
4
4
2.5
2.5
2.5
39
68
100
100
150
150
180
180
68
120
220
220
330
330
390
120
270
390
560
680
820
560
1200
1500
820
1500
2700
35
30
30
25
30
23
30
24
30
27
27
15
27
21
25
27
22
22
22
20
12
9
12
12
9
10
12
30
26
26
21
26
20
26
20
26
23
23
13
23
18
22
23
19
19
19
17
10
8
10
10
8
9
10
1820
1970
1970
2150
1970
2240
1970
2200
2200
2320
2320
3110
2320
2630
2410
2900
3220
3220
3220
3370
4700
5380
4700
4700
5380
5150
5080
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.15
0.15
0.15
0.15
0.15
0.15
0.15
300
300
300
300
300
300
300
300
300
300
300
300
300
300
300
500
500
491
500
500
1033
500
960
1200
500
750
1350
C6
E7
E12
F12
21
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 The ESR value in 300kHz is a reference one.
c
a
b
■Recommended land pattern
dimension of PWB Size Code
B6
C6
E7
E12
F12
ab c
1.4
2.1
2.8
2.8
4.3
7.4
9.1
11.1
11.1
13.1
1.6
1.6
1.9
1.9
1.9
(unit:mm)
■Table5 SVPC Series Characteristics List
Size
Code Part Number
※1
ESR (mΩ) (max.) Rated
ripple current
100kHz (mArms) at 105°C
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
100kHz 300kHz ※3
Rated
Voltage
(V)
Rated
Capacitance
(
µ
F)
4. SPECIFICATIONS FOR EACH SERIES
Specificationsfor
eachseries
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
■Specifications
■Dimensions
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 105°C .
※2 Refer to Page 54 for reflow soldering conditions.
C5
C55
φD+0.5max.
6.3
6.3
W±0.2
4.9
5.4 6.6
6.6
H±0.2
6.6
6.6
C±0.2
7.3
7.3
R
0.5 to 0.8
0.5 to 0.8
P±0.2
2.1
2.1
Size Code
(unit : mm)
■Size List
22
RV : Rated voltage (SV) : Surge (room temperature)
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φD
L
P
R
C
W
0.2max.
H
（＋）
This is a low profile series based on the SVPA series. Suitable for
miniaturizing devices and circuits.
This product can support lead free-reflow (※2).
Marking : Polarity( ), Rated voltage,
(Purple) PB Rated capacitance, Lot.No.
※For the minimum packing quantity, please refer to page 53.
Conductive polymer type
SVPBSeries Low profile
RV
（SV）
µ
F
15
22
33
56
82
100
120 C5
2.5
（3.3）
C5
4.0
（5.2）
C5
6.3
（8.2）
C5
10.0
（11.5）
C5
16.0
（18.4）C5
C55
20.0
（23.0）
L+0.1
-0.4
Items Characteristics
-55°C to +105°C
M :±20%
Less than or equal to the value of Table2
Less than or equal to the value of Table2
Less than or equal to the value of Table2
Within ±20% (±30% for C5 size)
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±10% (±20% for C5 size)
1.3 times or less than an initial standard
1.3 times or less than an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+105°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
105°C, 1,000h, Rated
voltage applied
60°C, 90 to 95% RH,
500h,
No-applied voltage
(VPS) (215°C X 90s)
※1
※2
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
23
■Table2 SVPB Series Characteristics List
Rated
Voltage
(V)
Rated
Capacitance
(µF)
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
●The C5 size is also available upon request as a radial lead type. Please contact us if this type is required. Maximum
height for radial lead types is 4.5 mm.
●The C55 size is also available upon request as 4V and 6.3V products.
C5
20SVPB15M
16SVPB33M
10SVPB56M
6SVPB82M
4SVPB100M
2R5SVPB120M
20SVPB22M
20
16
10
6.3
4
2.5
20
15
33
56
82
100
120
22
45
40
40
40
40
40
35
2000
1670
1670
1670
1670
1670
2000
0.12
0.12
0.12
0.12
0.12
0.12
0.12
120
211
224
207
160
120
88
Size
Code
C55
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
Part Number
※1
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Rated
ripple current
100kHz (mArms)
at 105°C
ESR
100kHz to 300kHz
(mΩ) (max.)
■Recommended land pattern
dimension of PWB (unit : mm)
c
a
b
Size Code
C5
C55
ab c
2.1
2.1 9.1
9.1 1.6
1.6
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
■Specifications
■Dimensions
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 105°C .
※2 Refer to Page 54 for reflow soldering conditions.
B6
C6
E7
F8
φ
D+0.5max.
5.0
6.3
8.0
10.0
W±0.2
5.9
5.9
6.9
7.9
5.3
6.6
8.3
10.3
H±0.2
5.3
6.6
8.3
10.3
C±0.2
6.0
7.3
9.0
11.0
R
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
P±0.2
1.4
2.1
3.2
4.6
Size Code
(unit : mm)
■Size List
24
39
47
68
82
120
150
180
220
270
330
470
680
820
B6
C6
E7
F8
B6
C6
E7
F8
B6
C6
E7
F8
C6
E7
F8
C6
E7
F8
RV
（SV）
µ
F
2.5
（3.3）4
（5.2）6.3
（8.2）10
（11.5）16
（18.4）
RV : Rated voltage (SV) : Surge (room temperature)
This is a low ESR series based on the SVP series. Suitable for
miniaturizing devices and circuits.
This product can support lead free-reflow(※2).
Marking : Polarity( ), Rated voltage
(Purple) PA(B6, C6), SVPA(E7, F8),
Rated capacitance, Lot.No.
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φD
L
P
R
C
W
0.2max.
H
（＋）
※For the minimum packing quantity, please refer to page 53.
Conductive polymer type
SVPASeries Low ESR,
Large ripple current
L+0.1
-0.4
Items Characteristics
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table4
Less than or equal to the value of Table4
Less than or equal to the value of Table4
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±10%
1.3 times or less than an initial standard
1.3 times or less than an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+105°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
(VPS) (230°C X 75s)
※1
※2
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
25
■Table4 SVPA Series Characteristics List
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 The ESR value at 300kHz is a reference one.
B6
6SVPA47MAA
4SVPA68MAA
2R5SVPA82MAA
16SVPA39MAA
16SVPA39MAAY
10SVPA68MAA
6SVPA120MAA
4SVPA150MAA
2R5SVPA180MAA
16SVPA82MAA
10SVPA150MAA
6SVPA220MAA
4SVPA270MAA
2R5SVPA330MAA
16SVPA180M
10SVPA330M
6SVPA470M
4SVPA680M
2R5SVPA820M
6.3
4
2.5
16
16
10
6.3
4
2.5
16
10
6.3
4
2.5
16
10
6.3
4
2.5
47
68
82
39
39
68
120
150
180
82
150
220
270
330
180
330
470
680
820
30
30
30
35
24
30
22
22
20
30
30
22
22
20
29
24
20
20
19
26
26
26
31
20
26
19
19
18
25
25
19
19
18
28
23
19
19
18
1970
1970
1970
2040
2460
2200
2570
2570
2690
2760
2760
3220
3220
3370
3430
3770
4130
4130
4240
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
300
300
300
300
300
300
300
300
300
262
500
500
500
500
576
660
592
544
500
Size
Code Part Number
※1
ESR (mΩ) (max.)
C6
E7
F8
Rated
ripple current
100kHz (mArms) at 105°C
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
100kHz 300kHz ※3
■Recommended land pattern
dimension of PWB
Size Code
B6
C6
E7
F8
ab c
1.4
2.1
2.8
4.3
7.4
9.1
11.1
13.1
1.6
1.6
1.9
1.9
(unit : mm)
Rated
Voltage
(V)
Rated
Capacitance
(
µ
F)
Specificationsfor
eachseries
c
a
b
4. SPECIFICATIONS FOR EACH SERIES
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 125°C .
※2 Refer to Page 54 for reflow soldering conditions.
C6
E7 6.3
8.0
W
±
0.2
φ
D+0.5max.
5.9
6.9 6.6
8.3
H±0.2
6.6
8.3
C±0.2
7.3
9.0
R
0.5 to 0.8
0.5 to 0.8
P±0.2
2.1
3.2
Size Code
(unit : mm)
■Size List
26
22
39
47
56
82
100
120
150
220 C6
E7
RV
（SV）
µF
4
（5.2）6.3
（8.2）10
（11.5）16
（18.4）20
（23）
C6
C6
E7
E7
C6
E7
E7
C6
E7
C6
E7
RV : Rated voltage (SV) : Surge (room temperature)
■Dimensions
※For the minimum packing quantity, please refer to page 53.
This series has advanced characteristics in resistance to heat compared with
the SVP series. The SVQP series is best suited for devices that require
enhanced reliability.
Following advantages of the improved heatproof characteristics, the SVQP
series does not need derating on maximum ripple current. However, the
series guarantees allowable ripple current differently in the temperature from
105°C to 125°C and in the temperature range lower than 105°C.
This product can support lead free-reflow.(※2). Marking : Polarity( ), Rated voltage
(Purple) QP, Rated capacitance, Lot.No.
■Specifications
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φD
L
P
R
C
W
0.2max.
H
（＋）
Conductive polymer type
SVQPSeries Guaranteed at 125°C
L+0.1
-0.4
Items Characteristics
-55°C to +125°C
M : ±20%
Less than or equal to the value of Table8
Less than or equal to the value of Table8
Less than or equal to the value of Table8
Within ±20%
2 times or less than an initial standard
2 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±10%
1.3 times or less than an initial standard
1.3 times or less than an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+125°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
125°C, 1,000h, Rated
voltage applied
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
(VPS) (230°C X 75s)
※1
※2
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
27
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 Tx : Ambient temperature
20SVQP22M
16SVQP39M
10SVQP56M
6SVQP82M
6SVQP100M
4SVQP150M
20SVQP47M
16SVQP82M
10SVQP120M
10SVQP150M
6SVQP150M
6SVQP220M
4SVQP220M
20
16
10
6.3
6.3
4
20
16
10
10
6.3
6.3
4
■Recommended land pattern
dimension of PWB
C6
E7
22
39
56
82
100
150
47
82
120
150
150
220
220
60
50
45
45
40
40
45
40
35
35
35
35
35
459
512
538
538
572
572
598
670
810
810
810
810
810
1450
1620
1700
1700
1810
1810
1890
2120
2560
2560
2560
2560
2560
0.10
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
220
312
280
258
315
300
470
656
600
750
472
693
440
Size Code
C6
E7
ab c
2.1
2.8 9.1
11.1 1.6
1.9
(unit : mm)
c
a
b
Size
Code
4. SPECIFICATIONS FOR EACH SERIES
■Table8 SVQP Series Characteristics List
Part Number
※1
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
100kHz (mArms) ※3
Rated ripple current
Allowable ripple current
105℃＜Tx≦125℃
Tx≦105℃
Specificationsfor
eachseries
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
■Dimensions
A5
B6
C6
E7
F8
E12
F12
φD+0.5max.
4.0
5.0
6.3
8.0
10.0
8.0
10.0
W±0.2
5.4
5.9
5.9
6.9
7.9
11.9
12.6
4.3
5.3
6.6
8.3
10.3
8.3
10.3
H±0.2
4.3
5.3
6.6
8.3
10.3
8.3
10.3
C±0.2
5.0
6.0
7.3
9.0
11.0
9.0
11.0
R
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
0.5 to 0.8
0.8 to 1.1
0.8 to 1.1
P±0.2
1.0
1.4
2.1
3.2
4.6
3.2
4.6
Size Code
(unit : mm)
■Size List
28
3.3
4.7
6.8
10
15
22
27
33
39
47
56
68
82
100
120
150
180
220
270
330
470
560
680
820
1200
1500
C6
E12
F12
RV
（SV）
µF2.5
（3.3）4
（5.2）6.3
（8.2）10
（11.5）16
（18.4）20
（23.0）25
（25.0）
A5
B6
B6
C6,E7
E7
E12
F8
F12
A5
B6
C6
C6
C6
E7,F8
F8
F8,E12
F12
A5
A5
A5
A5
B6
C6
C6
E7
E7,F8
F8
F8,E12
F12
A5
B6
B6
C6
E7
E7
F8
F8
F8,E12
F12
B6
C6
C6
E7
E7
F8
F8
E12
F12
C6
E7
F8
E12
F12
RV : Rated voltage (SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 53.
Standard SMD type product
Use for surface mounted type switching power supplies. The rated ripple
current value is assured at 105°C, so that it is not necessary to apply a
temperature correction coefficient such as that defined for other series.
This product can support lead free-reflow. (※2).
Marking : Polarity( ), Rated voltage, Lot.No.
(Purple) SVP(Upper E7), Rated capacitance.
■Specifications
※1 In case of some problems for measured values, measure after applying rated voltage for 2.5 to 20V products or 20V for 25V products
for 120 minutes at 105°C .
※2 Refer to Page 54 for reflow soldering conditions.
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φD
L
P
R
C
W
0.2max.
H
（＋）
■
Recommended land pattern
dimension of PWB
c
a
b
Size Code
A5
B6
C6
E7
F8
E12
F12
ab c
1.0
1.4
2.1
2.8
4.3
2.8
4.3
6.2
7.4
9.1
11.1
13.1
11.1
13.1
1.6
1.6
1.6
1.9
1.9
1.9
1.9
(unit:mm)
Conductive polymer type
SVPSeries Standard SMD type
L+0.1
-0.4
Items Characteristics
-55°C to +105°C
M: ±20%
Less than or equal to the value of Table7
Less than or equal to the value of Table7
Less than or equal to the value of Table7
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±10%
1.3 times or less than an initial standard
1.3 times or less than an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+105°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
(25V→20V applied)
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
(VPS) (230°C X 75s)
※1
※2
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
29
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
A5
16SVP3R3M
10SVP4R7M
10SVP6R8M
10SVP10M
10SVP15M
6SVP22M
4SVP33M
20SVP10M
16SVP15M
16SVP22M
10SVP33M
6SVP47M
4SVP39M
4SVP68M
25SVP6R8M
20SVP22M
20SVP27M
16SVP39M
10SVP47M
10SVP56M
6SVP82M
6SVP100M
6SVP120MV
4SVP150MX
2R5SVP220M
25SVP10M
20SVP33M
20SVP47M
16SVP56M
16SVP82M
10SVP120M
10SVP150MX
6SVP220MX
4SVP150M
4SVP330M
25SVP22M
20SVP56M
20SVP68M
16SVP100M
16SVP150M
16SVP180MX
10SVP150M
10SVP270M
10SVP330MX
6SVP220M
6SVP330M
6SVP470MX
4SVP680M
25SVP33M
20SVP100M
16SVP180M
10SVP330M
6SVP470M
4SVP560M
2R5SVP680M
25SVP56M
20SVP150M
16SVP330M
10SVP560M
6SVP820M
4SVP1200M
2R5SVP1500M
16
10
10
10
10
6.3
4
20
16
16
10
6.3
4
4
25
20
20
16
10
10
6.3
6.3
6.3
4
2.5
25
20
20
16
16
10
10
6.3
4
4
25
20
20
16
16
16
10
10
10
6.3
6.3
6.3
4
25
20
16
10
6.3
4
2.5
25
20
16
10
6.3
4
2.5
B6
C6
E7
F8
E12
F12
3.3
4.7
6.8
10
15
22
33
10
15
22
33
47
39
68
6.8
22
27
39
47
56
82
100
120
150
220
10
33
47
56
82
120
150
220
150
330
22
56
68
100
150
180
150
270
330
220
330
470
680
33
100
180
330
470
560
680
56
150
330
560
820
1200
1500
260
240
240
220
200
200
200
120
120
90
70
70
70
60
80
60
60
50
50
45
45
40
17
40
23
60
45
45
45
40
35
35
35
35
35
50
40
40
35
30
30
30
25
25
25
25
25
25
30
24
20
17
15
13
13
28
20
16
13
12
12
12
660
670
670
700
740
740
740
1020
1020
1060
1100
1100
1100
1400
1200
1450
1450
1620
1620
1700
1700
1810
2780
1810
2390
1500
1890
1890
1890
2120
2560
2560
2560
2560
2560
2000
2400
2400
2670
3020
3020
3020
3700
3700
3700
3700
3700
3700
2980
3320
3640
3950
4210
4520
4520
3800
4320
4720
5230
5440
5440
5440
0.07
0.08
0.09
0.10
0.10
0.12
0.15
0.10
0.10
0.10
0.12
0.12
0.12
0.12
0.10
0.10
0.10
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.15
0.15
0.15
0.15
0.15
0.15
0.12
0.15
0.15
0.15
0.15
0.18
0.18
26.4
23.5
34.0
50.0
75.0
69.3
66.0
100
120
176
165
148
78
136
85
88
108
125
94
112
103
126
151
120
110
125
132
188
179
262
240
300
277
120
264
275
224
272
320
480
576
300
540
660
277
416
592
544
413
400
576
660
592
448
340
700
600
792
840
775
960
750
Size
Code Part Number
※1
■Table7 SVP Series Characteristics List
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Rated
ripple current
(mArms)
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
4. SPECIFICATIONS FOR EACH SERIES
Specificationsfor
eachseries
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
■Specifications
■Dimensions
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 105°C .
(unit : mm)
■Size List
30
RV : Rated voltage
(SV) : Surge (room temperature)
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φd
L
F
15min.
19min.
φD
This is an even lower ESR series based on our SEP series. Suitable for
use with motherboards, servers, VGA, etc.
Lead free-flow is supported.
Marking : Polarity( ), Rated voltage, Rated Capacitance
(Purple) SANYO, OS-CON, Lot.No. SEPC.
4min.
※For the minimum packing quantity, please refer to page 51.
E9
E12
E13
F13
φD+0.5max.
8.0
8.0
8.0
10.0
Lmax. F
9.0
12.0
13.0
13.0
φd±0.05
0.6
0.6
0.6
0.6
3.5±0.5
3.5±0.5
3.5±0.5
5.0±0.5
Size Code
Conductive polymer type
SEPCSeries Large capacitance, low ESR
RV
（SV）
µ
F
2.5
（3.3）4.0
（5.2）6.3
（8.2）16.0
（18.4）
270
470
560
680
820
1500
2700
E9
E9 ， E13
F13
E9 ， E13
E13
F13
E9 ， E13
F13
F13
E12
F13
φd
L
15min. 4min.
19min.
φD
F
E12.E13.F13 Size E9 Size
E9 size flat rubber is used.
（＋）（＋）
Items Characteristics
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table3
Less than or equal to the value of Table3
Less than or equal to the value of Table3
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±5%
Below an initial standard
Below an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+105°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
60°C, 90% RH,
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※1
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
31
■Table3 SEPC Series Characteristics List
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
6SEPC470MX
4SEPC560MX
2SEPC560MX
2SEPC820MX
16SEPC270M
6SEPC470M
4SEPC560M
4SEPC680M
2R5SEPC820M
16SEPC470M
6SEPC680M
6SEPC1500M
4SEPC820M
2SEPC2700M
6.3
4
2.5
2.5
16
6.3
4
4
2.5
16
6.3
6.3
4
2.5
470
560
560
820
270
470
560
680
820
470
680
1500
820
2700
8
7
8
7
11
8
7
7
7
10
7
10
7
10
5700
6100
4700
6100
5000
5700
6100
6100
6100
6100
6640
5560
6640
5560
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
0.10
592
500
280
500
864
592
500
544
500
1504
857
1890
656
1350
Size
Code Part Number
※1
Rated
ripple current
100kHz (mArms) at 105°C
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Rated
Voltage
(V)
Rated
Capacitance
(
µ
F)
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
ESR
100kHz to 300kHz
(mΩ) (max.)
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
E9
E12
E13
F13
■Dimensions
※For the minimum packing quantity, please refer to page 51.
■Size List
32
6.8
15
18
22
39
47
56
68
82
100
120
150
180
270
330
470
560
680
820
1200
C6
E7
E12
F8
F13
RV
(SV)
µF4.0
(5.2)
C6
E7
F8
E12
F13
6.3
(8.4)
C6
E7
F8
E12
F13
10
(11.5)
C6
E7
F8
E12
F13
16
(18.4)
C6
E7
F8
E12
F13
20
(23)
E7
F8
E12
32
(37)
RV : Rated voltage (SV) : Surge (room temperature)
This series has advanced characteristics in resistance to heat compared with the
SEP series, and adds a rated voltage of 32V. Suitable for use in increasing device
reliability, 32V products may be used on 16 to 24V line industrial devices.
Lead free-flow is supported.
Marking : Polarity( ), Rated voltage
(Purple) SEQP, Rated capacitance, Lot.No.
■Specifications
※1 In case of some problems for measured values, measure after applying rated voltage for 120 minutes at 125
°C
.
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φd
L
F
15min.
19min.
φD
4min.
C6
E7
F8
E12
F13
φD+0.5max.
6.3
8.0
10.0
8.0
10.0
Lmax.
6.0
7.0
8.0
12.0
13.0
F
2.5
±
0.5
3.5
±
0.5
5.0
±
0.5
3.5
±
0.5
5.0
±
0.5
φd±0.05
0.45
0.45
0.50
0.60
0.60
Size Code
(unit : mm)
Conductive polymer type
SEQPSeries 125°C guaranteed,
32V product
（＋）
Items Characteristics
-55°C to +125°C
M : ±20%
Less than or equal to the value of Table6
Less than or equal to the value of Table6
Less than or equal to the value of Table6
Within ±20%
2 times or less than an initial standard
2 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±5%
Below an initial standard
Below an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+125°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
125°C, 1,000h, Rated
voltage applied
60°C, 90 to 95% RH,
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※1
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
33
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 Tx : Ambient temperature
20SEQP22M
16SEQP39M
10SEQP56M
6SEQP82M
4SEQP150M
32SEQP6R8M
20SEQP47M
16SEQP82M
10SEQP120M
6SEQP150M
4SEQP330M
32SEQP15M
20SEQP68M
16SEQP150M
10SEQP270M
6SEQP330M
4SEQP680M
32SEQP18M
20SEQP100M
16SEQP180M
10SEQP330M
6SEQP470M
4SEQP560M
20SEQP150M
16SEQP330M
10SEQP560M
6SEQP820M
4SEQP1200M
20
16
10
6.3
4
32
20
16
10
6.3
4
32
20
16
10
6.3
4
32
20
16
10
6.3
4
20
16
10
6.3
4
22
39
56
82
150
6.8
47
82
120
150
330
15
68
150
270
330
680
18
100
180
330
470
560
150
330
560
820
1200
60
50
45
45
40
100
45
40
35
35
35
80
40
30
25
25
25
50
24
20
17
15
13
20
16
13
12
12
458
512
537
537
572
440
598
670
810
810
810
560
759
955
1170
1170
1170
790
1050
1151
1250
1332
1430
1367
1493
1655
1721
1721
1450
1620
1700
1700
1810
1400
1890
2120
2560
2560
2560
1800
2400
3020
3700
3700
3700
2500
3320
3640
3950
4210
4520
4320
4720
5230
5440
5440
220
312
280
258
300
44
470
656
600
472
660
96
272
480
540
416
544
115
400
576
660
592
448
600
792
840
775
960
C6
E7
F8
E12
F13
■Table6 SEQP Series Characteristics List
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
105°C＜Tx≦125°C
Tx≦105
°C
Leakage
current (µA)
(max.)※2
0.10
0.10
0.12
0.12
0.12
0.10
0.12
0.12
0.12
0.12
0.12
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.15
0.15
0.15
0.15
0.15
0.15
0.15
0.15
0.15
0.18
Tangent of
loss angle
(max.)
ESR
100kHz to 300kHz
(mΩ) (max.) 100kHz (mArms) ※3
Rated ripple current
Allowable ripple current
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
■Size List
34
6.8
10
22
33
39
47
56
68
82
100
120
150
180
220
270
330
470
560
680
820
1200
1500
E12
F13
RV
（SV）
µF2.5
（3.3）4
（5.2）6.3
（8.2）10
（11.5）16
（18.4）20
（23.0）25
（25.0）
C6
C6
E7
E7
F8
E12
F8
F13
C6
E7
F8
E12
F13
C6
E7
F8
E12
F13
C6
E7
F8
E12
F13
C6
E7
E7
F8
F8
F8,E12
F13
C6
E7
F8
E12
F13
(unit : mm)
※1 In case of some problems for measured values, measure after applying rated voltage for 2.5 to 20V products or temperature derating
voltage for 25V products for 120 minutes at 105°C .
■Dimensions
RV : Rated voltage (SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 51.
This is a radial lead type using conductive polymer based on the SVP
series.
Because of its improved heat-proof characteristics, the rated ripple current
values are guaranteed at 105
°C
. Furthermore, there is no need to apply a
temperature-compensating coefficient.
Lead free-flow is supported. Marking : Polarity( ), Rated voltage, Rated capacitance
(Purple) Lot.No., SEP
■Specifications
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
φd
L
F
15min.
19min.
φD
4min.
6.3
8.0
10.0
8.0
10.0
6.0
7.0
8.0
12.0
13.0
2.5±0.5
3.5±0.5
5.0±0.5
3.5±0.5
5.0±0.5
0.45
0.45
0.50
0.60
0.60
C6
E7
F8
E12
F13
Size Code
φD+0.5max.
Lmax. F φd
±
0.05
Conductive polymer type
SEPSeries Standard radial lead type,
Guaranteed at 105
°C
for 3,000h
（＋）
Items Characteristics
-55°C to +105°C
M :±20%
Less than or equal to the value of Table9
Less than or equal to the value of Table9
Less than or equal to the value of Table9
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
1.5 times or less than an initial standard
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Within ±5%
Below an initial standard
Below an initial standard
Below an initial standard (after voltage processing)
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
Endurance
Damp heat (Steady state)
Characteristics of impedance
ratio at high temp. and low temp.
-55°C
+105°C
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
∆C/C
tanδ
ESR
Leakage current
Resistance to
soldering heat
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
120Hz
120Hz
105°C, 3,000h, Rated
voltage applied
(2.5V→2,000h),
(25V→20V applied)
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※1
Conditions
Based the value at
100KHz，+20°C
After 2 minutes
35
C6
25SEP6R8M
20SEP22M
16SEP39M
10SEP56M
6SEP82M
4SEP100M
4SEP150M
25SEP10M
20SEP33M
20SEP47M
16SEP82M
10SEP120M
6SEP150M
4SEP220M
4SEP330M
25SEP22M
20SEP56M
20SEP68M
20SEP100MX
16SEP150M
10SEP270M
6SEP330M
4SEP470M
4SEP680M
25SEP33M
20SEP100M
16SEP180M
10SEP330M
6SEP470M
4SEP560M
2R5SEP680M
25SEP56M
20SEP150M
16SEP330M
10SEP560M
6SEP820M
4SEP1200M
2R5SEP1500M
25
20
16
10
6.3
4
4
25
20
20
16
10
6.3
4
4
25
20
20
20
16
10
6.3
4
4
25
20
16
10
6.3
4
2.5
25
20
16
10
6.3
4
2.5
6.8
22
39
56
82
100
150
10
33
47
82
120
150
220
330
22
56
68
100
150
270
330
470
680
33
100
180
330
470
560
680
56
150
330
560
820
1200
1500
80
60
50
45
45
40
40
60
45
45
40
35
35
35
35
50
40
40
35
30
25
25
25
25
30
24
20
17
15
13
13
28
20
16
13
12
12
12
1200
1450
1620
1700
1700
1810
1810
1500
1890
1890
2120
2560
2560
2560
2560
2000
2400
2400
2570
3020
3700
3700
3700
3700
2980
3320
3640
3950
4210
4520
4520
3800
4320
4720
5230
5440
5440
5440
0.10
0.10
0.10
0.12
0.12
0.12
0.12
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.10
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.12
0.15
0.15
0.15
0.15
0.15
0.15
0.12
0.15
0.15
0.15
0.15
0.18
0.18
170
220
312
280
258
200
300
250
330
470
656
600
472
440
660
275
224
272
400
480
540
416
376
544
413
400
576
660
592
448
340
700
600
792
840
775
960
750
Size
Code
E7
F8
E12
F13
■Table9 SEP Series Characteristics List
Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Rated
ripple current
100kHz (mArms) at 105°C
4. SPECIFICATIONS FOR EACH SERIES
Specificationsfor
eachseries
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
Frequency coefficient for ripple current
Frequency
Coefficient 120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.3 10kHz≦ f ＜100kHz
0.7 100kHz≦ f ≦500kHz
1
36
■Specifications
※1 In case of some problems for measured values, measure after applying rated voltage for 30 minutes at 105
°C
.
■Size List
(unit : mm)
RV : Rated voltage
(SV) : Surge (room temperature)
(unit : mm)
■Dimensions
SF series SF series
SPA series SPA series
※For the minimum packing
quantity, please refer to page 51.
※For the minimum packing
quantity, please refer to page 51.
The SF series is low-profile, having a maximum height of
5mm. Use this series for smooth power supply of notebook
PCs.
The SPA series is a lower ESL and ESR based on the
SP series. Use this series for motherboards, etc.
Common to SF series and SPA series
Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No.
Upper category temp.(105°C)
Specificationsfor
eachseries
4. SPECIFICATIONS FOR EACH SERIES
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve
φd
L
15min. 4min.
19min.
φD
F
（＋）
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve φd
L
15min. 4min.
19min.
φD
F
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
Size Code
Size Code
150
220 E1
4.0
(5.2)E1
6.3
(8.2)
9E
9F
4.0
(5.2)
560
820
E1
µF
µF
RV
(SV)
RV
(SV)
9E
8.0 5.0
3.5
±
0.5
0.6
φ
D+0.5max.
Lmax.
F
φd±0.05
8.0 10.0
3.5
±
0.5
0.6
φ
D+0.5max.
Lmax.
F
φd±0.05
10.0 10.0
5.0
±
0.5
0.6
9F
SFSeries ●Radial lead type.
5mm height (max.)
●Radial lead type.
Low ESL and low ESR
SPASeries
-55°C to +105°C
M : ±20%
Less than or equal to the value of SF : Table10, SPA : Table11
Less than or equal to the value of SF : Table10, SPA : Table11
Less than or equal to the value of SF : Table10, SPA : Table11
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±20%
1.5 times or less than an initial standard
Below an initial standard
Within ±20% for SF (10% for SPA)
2 times or less than an initial standard
Below an initial standard
Within ±5%
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
60°C, 90 to 95%RH,
No-applied voltage
SF : 500h SPA : 1,000h
Flow method
(260±5°C X 10s)
※1
Based the value at
100KHz，+20°C
After 2 minutes
E1
6SF150M
4SF220M
6.3
4
150
220
32
30
0.07
0.07
189
176
2420
2510
※2
37
■Table10 SF Series Characteristics List
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 100kHz, +45°C
9E
9F
4SPA560M
4SPA820M
4
4
560
820
12
11
0.08
0.08
224
328
4080
5040
■Table11 SPA Series Characteristics List
※1 Capacitance tolerance : M ±20%
※2 After 2 minutes
※3 100kHz, +45°C
Size
Code
Size
Code
Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms)※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms)※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
4. SPECIFICATIONS FOR EACH SERIES
Specificationsfor
eachseries
※measuring position：roof of lead terminal
※All above values are not gurranteed, and there are some cases
that the values differ in the measuring way.
Please contact SANYO for detail.
ApproximateESLvalues
4SPA560M
4SP560M
at 10MHzModel
4SPA820M
4SP820M
9E
E
Size
Code
9F
F
3.6
5.3
Temperature coefficient for allowable ripple current
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
2.6
4
at 40MHz
3.4
5.1
2.4
3.8
Approx.33%down
Approx.36%down
(unit : nH)
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
■Specifications
■Dimensions (unit : mm)
※1 Please reduce 0.25V per 1°C from over 85°C for 25V products.
※2 In case of some problems for measured values, measure after applying rated voltage for 2 to 20V products or temperature derating voltage
for 25V products for 30 minutes at 105°C .
※3 C', E', F', C, D size : 1,000h. E, F, F0, G size : 2,000h. (2V, 25V, 4SP1000M, 2R5SP1200M : 1,000h)
■Size List
µF
10
18
22
33
47
56
68
82
100
120
150
180
220
270
330
390
470
560
680
820
1000
1200
1500
1800
2200
6.8
C'
C
E'
F',D
E
F
C'
C
E'
D
F'
E
F
C'
C
E'
F',D
E
F
C'
C
E'
F',D
E
F
F
RV
(SV)
2.5
(3.3)
F
F
0
2
(2.6)
C'
C
E'
D
F'
E
F
F
F
0
G
4
(5.2) 6.3
(8.2) 10
(11.5) 16
(18.4) 20
(23.0) C'
C
D
E
F
25
(25.0)
38
RV : Rated voltage (SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 51.
4. SPECIFICATIONS FOR EACH SERIES
The characteristics of SP series are large capacitance (about 2 times of
previous value) and low ESR (about half of previous value). It is optimum to
use around MPU of computer equipment. Also, suitable for audio because
OFC is used as the lead wires. Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No., Series name
Upper category temp.(105°C)
Specificationsfor
eachseries
Size Code
C'
φD＋0.5max.
Lmax. F φd±0.05 Gmax. Kmax.
6.3
8.0
10.0
6.3
6.3
8.0
10.0
10.0
12.5
6.0
6.0
6.0
7.8
10.8
11.5
11.5
21.0
23.0
2.5±0.5
3.5±0.5
5.0±0.5
2.5±0.5
2.5±0.5
3.5±0.5
5.0±0.5
5.0±0.5
5.0±1.0
0.60
0.60
0.60
0.60
0.60
0.60
0.60
0.80
0.80
0.5
0.8
0.8
0.5
0.5
0.8
0.8
0.8
0.8
0.5
0.8
0.8
0.5
0.5
0.8
0.8
0.8
0.8
E'
F'
C
D
E
F
F0
G
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve
L
15min. 4min.
19min.
φD
F
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
SPSeries Large Capacitance, Low ESR
Optimum for Audio etc.
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table12
Less than or equal to the value of Table12
Less than or equal to the value of Table12
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±20%
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
2 times or less than an initial standard
Below an initial standard
Within ±5%
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
105°C, 1,000 to 2,000h
Rated voltage
applied (25V→20V applied) ※1
60°C, 90 to 95%RH
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※2
※3
Based the value at
100KHz，+20°C
After 2 minutes
■Table12 SP Series Characteristics List
※1 Tolerance on rated capacitance : M ±20% ※2 After 2 minutes
※3 100kHz, +45°C ※4 D size is SPS series.
E'
D
C
E
F
F0
G
F'
C'
25SP6R8M
20SP22M
16SP33M
10SP56M
6SP68M
4SP100M
20SP47M
16SP68M
10SP100M
6SP150M
4SP220M
20SP68M
16SP100M
10SP180M
6SP220M
4SP330M
25SP10M
20SP33M
16SP47M
10SP82M
6SP120M
4SP150M
25SPS18M
20SPS68M
16SPS100M
10SPS150M
6SPS220M
4SPS270M
25SP33M
20SP120M
16SP180M
10SP270M
6SP390M
4SP560M
25SP56M
20SP180M
16SP270M
10SP470M
6SP680M
4SP820M
4SP1000M
2R5SP1200M
2SP1000M
4SP1500M
2SP1800M
4SP2200M
25
20
16
10
6.3
4
20
16
10
6.3
4
20
16
10
6.3
4
25
20
16
10
6.3
4
25
20
16
10
6.3
4
25
20
16
10
6.3
4
25
20
16
10
6.3
4
4
2.5
2
4
2
4
22
33
56
68
100
47
68
100
150
220
68
100
180
220
330
10
33
47
82
120
150
18
68
100
150
220
270
33
120
180
270
390
560
56
180
270
470
680
820
1000
1200
1000
1500
1800
2200
60
50
50
45
40
40
36
34
32
30
28
34
32
29
28
24
55
45
45
40
35
35
40
30
25
25
20
20
30
24
20
18
16
14
25
20
18
15
13
12
12
12
11
8
8
9
1510
1580
1580
1710
1850
1850
2210
2280
2350
2420
2510
2800
2890
2990
3100
3230
1560
1710
1710
1850
1930
1930
2230
2580
2820
2820
3160
3160
2780
3110
3410
3600
3810
4080
3260
4280
4400
4510
4840
5040
5040
5040
5260
6500
6500
7100
0.06
0.06
0.06
0.06
0.06
0.06
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.08
0.10
0.10
0.12
17.00
44.00
52.80
56.00
42.84
40.00
94.00
108.80
100.00
94.50
88.00
136.00
160.00
180.00
138.60
132.00
25.00
66.00
75.20
82.00
75.60
60.00
45.00
136.00
160.00
150.00
138.60
108.00
82.50
240.00
288.00
270.00
245.70
224.00
140.00
360.00
432.00
470.00
428.40
328.00
400.00
450.00
400.00
600.00
720.00
880.00
6.8
※４
39
Temperature coefficient for allowable ripple current
4. SPECIFICATIONS FOR EACH SERIES
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms) ※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Specificationsfor
eachseries
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
40
■Size List
■Specifications
■Dimensions (unit : mm)
※1 Please reduce 0.25V per 1°C from over 85°C for 25V products.
※2 In case of some problems for measured values, measure after applying rated voltage for 6.3 to 16 and 30V products or temperature
derating voltage for 25V products for 30 minutes at 105°C.
RV : Rated voltage
(SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 51.
4. SPECIFICATIONS FOR EACH SERIES
Suitable for noise limiters and switching power supplies that make a point
of high frequency characteristics. Also, make use of it when needed long
life span and high reliability. Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No.
Upper category temp.(105°C)
Specificationsfor
eachseries
Size Code
A
B
C
D
E
F
4.0
5.0
6.3
6.3
8.0
10.0
φ
D＋0.5max.
Lmax.
7.8
7.8
7.8
10.8
11.5
11.5
0.45
0.45
0.45
0.60
0.60
0.60
0.5
0.5
0.5
0.5
0.8
0.8
0.5
0.5
0.5
0.5
0.8
0.8
2.0
±
0.5
2.0
±
0.5
2.5
±
0.5
2.5
±
0.5
3.5
±
0.5
5.0
±
0.5
Fφ
d
±
0.05
Gmax. Kmax.
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve φd
L
15min. 4min.
19min.
φD
F
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
1.0
1.5
2.2
3.3
4.7
6.8
10
15
22
33
47
A
B
C
A
B
C
D
A
A
B
B
C
D
D
A
A
B
B
C
C
C
D
E
F
F
A
B
B
C
D
D
E
F
RV
µF6.3
(7.2) 16
(18.4) 25
(25.0)
10
(11.5) 30
(34.5)
(SV)
SCSeries Standard Products
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table13
Less than or equal to the value of Table13
Less than or equal to the value of Table13
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±20%
1.5 times or less than an initial standard
Below an initial standard
Within ±10%
1.5 times or less than an initial standard
Below an initial standard
Within ±5%
Below an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
(25V→20V applied) ※1
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※2
Based the value at
100KHz，+20°C
After 2 minutes
41
※1 Tolerance on rated capacitance : M ±20%, Product “K” (Tolerance on rated capacitance : ±10%) is
optionally available.
※2 After 2 minutes
※3 100kHz, +45°C
Temperature coefficient for allowable ripple current
30SC1M
25SC1M
25SC1R5M
16SC2R2M
16SC3R3M
10SC4R7M
6SC6R8M
30SC1R5M
30SC2R2M
25SC2R2M
25SC3R3M
16SC4R7M
16SC6R8M
10SC10M
6SC15M
30SC3R3M
25SC4R7M
25SC6R8M
25SC10M
16SC15M
10SC22M
6SC33M
30SC4R7M
30SC6R8M
25SC15M
16SC22M
16SC33M
10SC47M
30SC10M
25SC22M
30SC22M
25SC33M
25SC47M
30
25
25
16
16
10
6.3
30
30
25
25
16
16
10
6.3
30
25
25
25
16
10
6.3
30
30
25
16
16
10
30
25
30
25
25
1.0
1.0
1.5
2.2
3.3
4.7
6.8
1.5
2.2
2.2
3.3
4.7
6.8
10
15
3.3
4.7
6.8
10
15
22
33
4.7
6.8
15
22
33
47
10
22
22
33
47
350
350
300
280
280
280
250
300
250
200
200
180
150
150
120
200
100
100
90
90
70
70
120
120
70
70
70
60
110
40
80
35
35
430
430
435
450
500
540
560
435
695
695
700
720
745
780
815
820
1130
1140
1150
1230
1270
1320
1300
1340
1650
1800
1900
2020
1380
2330
1830
2900
2980
0.03
0.03
0.03
0.04
0.04
0.05
0.05
0.03
0.03
0.03
0.03
0.04
0.04
0.05
0.05
0.03
0.03
0.03
0.03
0.04
0.05
0.05
0.04
0.04
0.04
0.05
0.06
0.06
0.06
0.06
0.06
0.06
0.06
1.00
0.50
0.50
0.50
0.53
0.50
0.50
1.00
1.32
0.55
0.83
0.75
1.09
1.00
0.95
1.98
1.18
1.70
2.50
2.40
2.20
2.08
2.82
4.08
3.75
3.52
5.28
4.70
6.00
5.50
13.20
8.25
11.75
A
B
C
D
E
F
4. SPECIFICATIONS FOR EACH SERIES
■Table13 SC Series Characteristics List
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms) ※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Specificationsfor
eachseries
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
42
■Size List
■Specifications
■Dimensions
※1 In case of some problems for measured values, measure after applying rated voltage for 30 minutes at 105°C.
(unit : mm)
RV : Rated voltage
(SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 51.
4. SPECIFICATIONS FOR EACH SERIES
SA series is miniaturized SC series with large capacitance. Suitable for
high frequency switching power supplies, etc.
Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No.
Upper category temp.(105°C)
Specificationsfor
eachseries
Size Code
C
D
E
F
G
H
6.3
6.3
8.0
10.0
12.5
16.0
φD＋0.5max.
Lmax.
7.8
10.8
11.5
11.5
23.0
26.0
0.45
0.60
0.60
0.60
0.80
0.80
0.5
0.5
0.8
0.8
0.8
0.8
0.5
0.5
0.8
0.8
0.8
0.8
2.5
±
0.5
2.5
±
0.5
3.5
±
0.5
5.0
±
0.5
5.0
±
1.0
7.5
±
1.0
F
φd±0.05
Gmax. Kmax.
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve φd
L
15min. 4min.
19min.
φD
F
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
15
22
33
47
68
100
150
220
330
470
1000
2200
C
E
F
H
D
F
C
D
E
F
G
H
C
C
D
E
E
F
RV
(SV)
µF
6.3
(7.2) 16
(18.4) 20
(23.0)
10
(11.5)
SASeries Large capacitance and miniaturized
products
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table14
Less than or equal to the value of Table14
Less than or equal to the value of Table14
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±20%
1.5 times or less than an initial standard
Below an initial standard
Within ±10%
1.5 times or less than an initial standard
Below an initial standard
Within ±5%
Below an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
60°C, 90 to 95%RH,
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※1
Based the value at
100KHz，+20°C
After 2 minutes
43
■Table14 SA Series Characteristics List
20SA15M
20SA22M
16SA33M
6SA47M
20SA33M
16SA47M
10SA68M
20SA47M
20SA68M
16SA100M
6SA150M
20SA100M
16SA150M
10SA220M
6SA330M
16SA470M
16SA1000M
6SA2200M
20
20
16
6.3
20
16
10
20
20
16
6.3
20
16
10
6.3
16
16
6.3
15
22
33
47
33
47
68
47
68
100
150
100
150
220
330
470
1000
2200
90
70
70
60
70
60
50
40
36
30
30
30
28
27
25
20
15
15
1200
1300
1370
1430
1710
1830
2000
2450
2600
2740
2780
3210
3260
3370
3500
6080
9750
9750
0.06
0.06
0.06
0.07
0.06
0.06
0.07
0.06
0.06
0.06
0.07
0.06
0.06
0.07
0.07
0.08
0.09
0.13
6.00
8.80
10.56
5.92
13.20
15.04
13.60
18.80
27.20
32.00
18.90
40.00
48.00
44.00
41.58
300.80
640.00
554.40
※1 Tolerance on rated capacitance : M ±20%, Product “K” (Tolerance on rated capacitance : ±10%) is
optionally available. However, the exception regarding G and H size.
※2 After 2 minutes
※3 100kHz, +45°C
C
D
E
F
G
H
Temperature coefficient for allowable ripple current
4. SPECIFICATIONS FOR EACH SERIES
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms)
※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)
※2
Specificationsfor
eachseries
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
44
■Size List
µF
1.0
1.5
2.2
3.3
4.7
6.8
10
15
22
33
47
68
100
150
220
■Dimensions
※1 Please reduce 0.25V per 1°C from over 85°C for 25V products.
※2 In case of some problems for measured values, measure after applying rated voltage for 4 to 16V products or temperature derating
voltage for 25V products for 30 minutes at 105°C.
RV
(SV)
A'
B'
E'
F'
A'
B'
C'
C'
C'
E'
F'
A'
A'
B'
B'
C'
C'
E'
F'
A'
A'
B'
B'
C'
C'
E'
F'
E'
F'
4
(4.6) 6.3
(7.2) 10
(11.5) 16
(18.4) 25
(25.0)
(unit : mm)
RV : Rated voltage
(SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 51.
4. SPECIFICATIONS FOR EACH SERIES
The SL series is low profile with a category upper limit temperature of
105°C. Use the SL series for compact and slim designs, such as VTRs,
video cameras, car stereos, etc. Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No.
Upper category temp.(105°C)
■Specifications
Specificationsfor
eachseries
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve φd
L
15min. 4min.
19min.
φD
F
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
Size Code
A'
B'
C'
E'
F'
4.0
5.0
6.3
8.0
10.0
φD＋0.5max.
Lmax.
6.0
6.0
6.0
6.0
6.0
0.45
0.45
0.45
0.50
0.50
0.5
0.5
0.5
0.8
0.8
0.5
0.5
0.5
0.8
0.8
1.5±0.5
2.0±0.5
2.5±0.5
3.5±0.5
5.0±0.5
F
φd
±
0.05
Gmax. Kmax.
SLSeries Low-profile products.
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table15
Less than or equal to the value of Table15
Less than or equal to the value of Table15
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±20%
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
2 times or less than an initial standard
Below an initial standard
Within ±5%
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
105°C, 2,000h, Rated
voltage applied
(E', F' size ; 1,000h) (25V→20V applied) ※1
60°C, 90 to 95%RH
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※2
Based the value at
100KHz，+20°C
After 2 minutes
45
25SL1Ｍ
25SL1R5Ｍ
16SL2Ｒ2Ｍ
16SL3Ｒ3Ｍ
10SL4Ｒ7Ｍ
6SL6Ｒ8Ｍ
25SL2Ｒ2Ｍ
25SL3Ｒ3Ｍ
16SL4Ｒ7Ｍ
16SL6Ｒ8Ｍ
10SL10Ｍ
6SL15Ｍ
25SL4Ｒ7Ｍ
25SL6Ｒ8Ｍ
16SL10Ｍ
16SL15Ｍ
10SL22Ｍ
10SL33Ｍ
10SL47Ｍ
25SL15M
16SL47M
10SL68M
6SL100M
4SL150M
25SL22M
16SL68M
10SL100M
6SL150M
4SL220M
25
25
16
16
10
6.3
25
25
16
16
10
6.3
25
25
16
16
10
10
10
25
16
10
6.3
4
25
16
10
6.3
4
1
1.5
2.2
3.3
4.7
6.8
2.2
3.3
4.7
6.8
10
15
4.7
6.8
10
15
22
33
47
15
47
68
100
150
22
68
100
150
220
450
400
400
400
400
350
250
250
250
180
150
120
100
100
100
100
80
80
70
75
70
65
65
60
70
65
60
60
55
430
435
450
500
540
560
695
700
720
745
780
815
1130
1140
1150
1230
1270
1350
1430
1400
1550
1600
1600
2000
1600
1850
2100
2100
2400
0.05
0.05
0.05
0.06
0.06
0.06
0.05
0.05
0.05
0.05
0.05
0.06
0.06
0.06
0.06
0.06
0.06
0.06
0.06
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.07
0.50
0.75
0.70
1.06
0.94
0.86
1.10
1.65
1.50
2.18
2.00
1.89
2.35
3.40
3.20
4.80
4.40
6.60
9.40
7.50
15.04
13.60
12.60
12.00
11.00
21.76
20.00
18.90
17.60
※1 Tolerance on rated capacitance : M ±20%,
Product “K” (Tolerance on rated capacitance : ±10%) is optionally available except for E' and F' size.
※2 After 2 minutes
※3 100kHz, +45°C
A'
B'
C'
E'
F'
Temperature coefficient for allowable ripple current
4. SPECIFICATIONS FOR EACH SERIES
■Table15 SL Series Characteristics List
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms) ※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Specificationsfor
eachseries
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
105°C, 5,000h, Rated
voltage applied
(25V→20V applied) ※1
60°C, 90 to 95%RH
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※2
Based the value at
100KHz，+20°C
After 2 minutes
46
■Size List
1.0
1.5
2.2
3.3
4.7
6.8
10
15
22
33
47
68
100
150
220
330
■Specifications
■Dimensions
A
B
C
E
F
※1 Please reduce 0.25V per 1°C from over 85°C for 25V products.
※2 In case of some problems for measured values, measure after applying rated voltage for 6.3 to 20V products or temperature derating
voltage for 25V products for 30 minutes at 105°C .
RV
(SV)
µF6.3
(7.2) 16
(18.4)
10
(11.5) 20
(23.0) 25
(25.0)
A
B
D
F
A
A
B
B
C
D
E
F
C
C
D
E
E
F
A
A
B
B
C
C
C
D
(unit : mm)
RV : Rated voltage
(SV) : Surge (room temperature)
※For the minimum packing quantity, please refer to page 51.
4. SPECIFICATIONS FOR EACH SERIES
SH series has a long life (guaranteed at 105°C for 5,000h) with keeping high
frequency characteristics. Suitable for industrial equipment which needed high
reliability.
Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No., Series name
Upper category temp.(105°C)
Specificationsfor
eachseries
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Sleeve φd
L
15min. 4min.
19min.
φD
F
Mark ; ideal terminal lead position C;
the middle point of A-A'
Size Code
A
B
C
D
E
F
4.0
5.0
6.3
6.3
8.0
10.0
φD＋0.5max.
Lmax.
7.8
7.8
7.8
10.8
11.5
11.5
0.45
0.45
0.45
0.60
0.60
0.60
0.5
0.5
0.5
0.5
0.8
0.8
0.5
0.5
0.5
0.5
0.8
0.8
2.0
±
0.5
2.0
±
0.5
2.5
±
0.5
2.5
±
0.5
3.5
±
0.5
5.0
±
0.5
F
φd
±
0.05
Gmax. Kmax.
SHSeries Long Life (105°C X 5,000h)
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table16
Less than or equal to the value of Table16
Less than or equal to the value of Table16
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±30%
1.5 times or less than an initial standard
5 times or less than an initial standard
Within ±10%
1.5 times or less than an initial standard
Below an initial standard
Within ±5%
Below an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
47
※1 Tolerance on rated capacitance : M ±20%,
Product “K” (Tolerance on rated capacitance : ±10%) is optionally available.
※2 After 2 minutes
※3 100kHz, +45°C
A
B
C
D
E
F
25SH1M
25SH1R5M
16SH2R2M
16SH3R3M
10SH4R7M
6SH6R8M
25SH2R2M
25SH3R3M
16SH4R7M
16SH6R8M
10SH10M
6SH15M
25SH4R7M
25SH6R8M
25SH10M
20SH15M
20SH22M
16SH33M
6SH47M
25SH15M
20SH33M
16SH47M
10SH68M
20SH47M
20SH68M
16SH100M
6SH150M
20SH100M
16SH150M
10SH220M
6SH330M
25
25
16
16
10
6.3
25
25
16
16
10
6.3
25
25
25
20
20
16
6.3
25
20
16
10
20
20
16
6.3
20
16
10
6.3
1.0
1.5
2.2
3.3
4.7
6.8
2.2
3.3
4.7
6.8
10
15
4.7
6.8
10
15
22
33
47
15
33
47
68
47
68
100
150
100
150
220
330
350
300
280
280
280
250
200
200
180
150
150
120
100
100
90
90
70
70
60
70
70
60
50
40
36
30
30
30
28
27
25
430
435
450
500
540
560
695
700
720
745
780
815
1130
1140
1150
1200
1300
1370
1430
1650
1710
1830
2000
2450
2600
2740
2780
3210
3260
3370
3500
0.03
0.03
0.04
0.04
0.05
0.05
0.03
0.03
0.04
0.04
0.05
0.05
0.03
0.03
0.03
0.05
0.05
0.06
0.07
0.04
0.06
0.06
0.07
0.06
0.06
0.06
0.07
0.06
0.06
0.07
0.07
0.50
0.75
0.70
1.06
0.94
0.86
1.10
1.65
1.50
2.18
2.00
1.89
2.35
3.40
5.00
6.00
8.80
10.56
5.92
7.50
13.20
15.04
13.60
18.80
27.20
32.00
18.90
40.00
48.00
44.00
41.58
Temperature coefficient for allowable ripple current
4. SPECIFICATIONS FOR EACH SERIES
■Table16 SH Series Characteristics List
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms)※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)※2
Specificationsfor
eachseries
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
※For the minimum packing quantity, please refer to page 51.
48
■Size List
RV
µF
2.2
3.3
4.7
6.8
10
15
22
33
47
68
100
150
220
330
470
A'
B'
D
E
F
A'
A'
B'
B'
C'
D
4
(4.6) 10
(11.5) 16
(18.4)
6.3
(7.2)
■Dimensions
20
(23.0)
(unit : mm)
（SV）
C'
D
F
A'
B'
E
A'
A'
B'
B'
C'
C'
C'
D
E
F
※1 In case of some problems for measured values, measure after applying rated voltage for 30 minutes at 105°C .
RV : Rated voltage
(SV) : Surge (room temperature)
4. SPECIFICATIONS FOR EACH SERIES
SS series is a miniaturized version of SC, SA and SL series. Suitable
for switching power supplies, etc. to make more compact. Sleeve color : Purple
Marking : Polarity( ), Rated voltage, Rated Capacitance
(White) SANYO, OS-CON, Lot.No., Series name
Upper category temp.(105°C)
■Specifications
Specificationsfor
eachseries
（＋）
F
G
A'
C
K
A
B
B'
Standards of terminal lead position
Mark ; ideal
terminal
lead position C;
the middle point of A-A'
Sleeve φd
L
15min. 4min.
19min.
φD
F
Size Code
A'
B'
C'
D
E
F
4.0
5.0
6.3
6.3
8.0
10.0
φD＋0.5max.
Lmax.
6.0
6.0
6.0
10.8
11.5
11.5
0.45
0.45
0.45
0.60
0.60
0.60
0.5
0.5
0.5
0.5
0.8
0.8
0.5
0.5
0.5
0.5
0.8
0.8
1.5
±
0.5
2.0
±
0.5
2.5
±
0.5
2.5
±
0.5
3.5
±
0.5
5.0
±
0.5
F
φd
±
0.05
Gmax. Kmax.
SSSeries Miniaturized Products of
SC, SA and SL series
-55°C to +105°C
M : ±20%
Less than or equal to the value of Table17
Less than or equal to the value of Table17
Less than or equal to the value of Table17
-55°C
+105°C
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
∆C/C
tanδ
Leakage current
Z / Z 20°C
Z / Z 20°C0.75 to 1.25
0.75 to 1.25
Within ±20%
1.5 times or less than an initial standard
Below an initial standard
Within ±20%
2 times or less than an initial standard
Below an initial standard
Within ±5%
1.5 times or less than an initial standard
Below an initial standard (after voltage processing)
Items Characteristics
Endurance
Damp heat (Steady state)
Resistance to
soldering heat
Characteristics of impedance
ratio at high temp. and low temp.
Conditions
Category temperature range
Tolerance on rated capacitance
Tangent of loss angle
Leakage current
ESR
120Hz
120Hz
After 2 minutes
Based the value at
100KHz，+20°C
105°C, 1,000h, Rated
voltage applied
(E, F size : 2,000h)
60°C, 90 to 95%RH
1,000h,
No-applied voltage
Flow method
(260±5°C X 10s)
※1
Temperature coefficient for allowable ripple current
49
20SS2R2M
20SS3R3M
16SS4R7M
16SS6R8M
10SS10M
6SS15M
20SS4R7M
20SS6R8M
16SS10M
16SS15M
10SS22M
6SS33M
20SS10M
20SS15M
20SS22M
16SS33M
4SS68M
20SS47M
16SS68M
10SS100M
4SS150M
20SS100M
10SS150M
6SS220M
20SS150M
10SS330M
4SS470M
20
20
16
16
10
6.3
20
20
16
16
10
6.3
20
20
20
16
4
20
16
10
4
20
10
6.3
20
10
4
2.2
3.3
4.7
6.8
10
15
4.7
6.8
10
15
22
33
10
15
22
33
68
47
68
100
150
100
150
220
150
330
470
400
400
400
400
350
350
250
180
150
150
150
150
100
100
100
100
70
60
50
40
40
30
30
30
30
25
25
450
500
540
540
560
560
720
745
780
780
780
780
1150
1230
1230
1230
1430
1830
2000
2100
2100
2740
2780
3000
3200
3500
3500
0.05
0.06
0.06
0.06
0.06
0.06
0.05
0.05
0.05
0.05
0.05
0.05
0.06
0.06
0.06
0.06
0.06
0.06
0.07
0.07
0.08
0.07
0.07
0.07
0.07
0.07
0.07
2.20
3.30
3.76
5.44
5.00
4.73
4.70
6.80
8.00
12.00
11.00
10.40
10.00
15.00
22.00
26.40
13.60
47.00
54.40
50.00
30.00
100.00
75.00
69.30
150.00
165.00
94.00
※1 Tolerance on rated capacitance : M ±20%
※2 After 2 minutes
※3 100kHz, +45°C
A'
B'
C'
D
E
F
4. SPECIFICATIONS FOR EACH SERIES
■Table17 SS Series Characteristics List
Size
Code Part Number
※1
Rated
Voltage
(V)
Rated
Capacitance
(µF)
ESR
100kHz to 300kHz
(mΩ) (max.)
Allowable
ripple current
(mArms)
※3
Tangent of
loss angle
(max.)
Leakage
current (µA)
(max.)
※2
Specificationsfor
eachseries
Ambient Temp.
Coefficient Tx≦45°C
1
45°C＜Tx≦65°C
0.85
65°C＜Tx≦85°C
0.7
85°C＜Tx≦95°C
0.4
95
°C
＜Tx≦105
°C
0.25
Frequency coefficient for allowable ripple current
120Hz≦ f ＜1kHz
0.05 1kHz≦ f ＜10kHz
0.2 10kHz≦ f ＜100kHz
0.5 100kHz≦ f ≦500kHz
1
Frequency
Coefficient
5. SPECIFICATIONS FOR THE RADIAL LEAD TYPE
50
1. Explanation of Part Number (Radial Lead Type)
Rated voltage
Rated volt.
2.0
2.5
4.0
6.3
10
16
20
25
30
32
Code
2
2R5
4
6
10
16
20
25
30
32
Series name Rated Capacitance
Rated Cap.(µF)
Example
1
2.2
4.7
10
22
100
220
1000
2700
1
2R2
4R7
10
22
100
220
1000
2700
Code
±20%
Cap.
tolerance
M
Code
Capacitance
tolerance Taping or forming of
terminal code
SC Series
SA Series
SL Series
SH Series
SP Series
SS Series
SEP Series
SEQP
Series
SEPC
Series
SF Series
SPA Series
2. Radial lead terminal process
Specificationsforthe
radialleadtype
* SP, SPA, and SF series are not applicable to the process.
* SEP, SEQP, and SEPC series are not applicable to the forming cut.
* The other series are applied to the all of the process. Refer to 2) and 3).
* The following table is a standard specification. Please contact us concerning other specifications.
Taping or lead terminal
wire process code
None suffix for regular
Iength lead type products
※1
A
2.0 B, B'
2.0 C,C',C6,D
2.5
E, E', E7, E12, E13
3.5
F, F', F8, F13
5.0
Lead space : 2.5mm
forming cut
Lead space : 5mm
forming cut
Straight cut
Process names Applicable Case size
(Size code)
Lead terminal
cutting code
Dimensions (unit : mm)
φ4 （A, A'）
φ5 （B, B'）
+CA
+CC
+CD
+F
+F1
+F2
+C
+C1
+C2
+C3
φ4 （A, A'）
φ5 （B, B'）
φ6.3（C, C', D）
φ8 （E, E'）
φ4 （A）
φ5 （B, B'）
φ6.3（C, C', C6, D）
φ8 （E, E', E7, E12, E13）
φ10（F, F', F8, F13）
2.5±1
L±0.5
5±1
2.5max.
L±0.5
F±1
L±0.5
LCA
5.5 CC
4.0 CD
2.5
LF
5.5 F1
4.5 F2
3.0
LC
5.5 C1
4.0 C2
2.5 C3
3.5
Size Code
F
Series Size
Not processed
Straight cut Forming cut Taping
Bag-packed products (lead terminal cutting)
SP
SPA
SF
SEP
SEQP
SEPC
C',C,D,E',E
C',C,D,E',E,F',F
9E
9F
E1
E12
F13
E9,E12
E13
F13
○
○
○
○
○
○
○
○
○
○
×
×
×
×
×
×
×
×
×
×
+TS
+T
+T, +TS
+T
+T, +TS
+TSS
+T
+TSS
+TS
+T
×
×
×
×
×
+C, +C1, +C2, +C3
+C, +C1, +C2, +C3
+C, +C1, +C2, +C3
+C, +C1, +C2, +C3
+C, +C1, +C2, +C3
Organic
semiconductor
Conductive
polymer
*1 Code 2 is used for 2.5V products of E9 and F13 size in SEPC series.
1) Applications
2) Specifications for lead terminal cutting
51
a) F=5.0mm Taping code +T
(Size Code A,B,C,D,E,A',B',C',E')
b) F=2.5 or 3.5mm Taping code +TS
c) F=2.5 or 3.5mm Taping code +TSS
(Size Code A,A',B,B')
(Size Code C6,E7,E9,E12)
(Size Code F,F',F8,F13,9F)
(Size Code C,C',D,E,E',E1,E13,9E)
3. Minimum Packing Quantity
Packing quantities standard • Processed
type discrete lead terminals
500
500
500
200
200
100
50
25
Zig-zag pack taping type
Size Code
Quantity (pcs.)
※Ordering information
φ10(Fo), φ12.5 and φ16 are packing type only.
Code
Tolerance
φ4
φ5
φ6.3
φ8
φ10
φ4
φ5
φ6.3
φ8
φ6.3
φ8
+T
+T
+T
+T
+T
+TS
+TS
+TS
+TS
+TSS
+TSS
FPP
0P1P2 hWW0W1W2HH0φD0t L
(unit : mm)
5.0
5.0
5.0
5.0
5.0
2.5
2.5
2.5
3.5
2.5
3.5
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
12.7
3.85
3.85
3.85
3.85
3.85
5.10
5.10
5.10
4.60
5.10
4.60
6.35
6.35
6.35
6.35
6.35
6.35
6.35
6.35
6.35
6.35
6.35
0
0
0
0
0
0
0
0
0
0
0
18.0
18.0
18.0
18.0
18.0
18.0
18.0
18.0
18.0
18.0
18.0
9.5
9.5
9.5
9.5
9.5
9.5
9.5
9.5
9.5
9.5
9.5
9.0
9.0
9.0
9.0
9.0
9.0
9.0
9.0
9.0
9.0
9.0
2.5
2.5
2.5
2.5
2.5
2.5
2.5
2.5
2.5
2.5
2.5
18.5
18.5
18.5
20.0
18.5
17.5
17.5
17.5
17.5
17.5
17.5
16.0
16.0
16.0
16.0
-
-
-
-
-
-
-
4.0
4.0
4.0
4.0
4.0
4.0
4.0
4.0
4.0
4.0
4.0
0.7
0.7
0.7
0.7
0.7
0.7
0.7
0.7
0.7
0.7
0.7
0
0
0
0
0
0
0
0
0
0
0
11.0
11.0
11.0
11.0
11.0
11.0
11.0
11.0
11.0
11.0
11.0
±±1.0 ±0.2 ±0.5 ±1.0 ±1.0 ±0.5 min. ±0.5
max.
±
0.75
±0.5 ±0.2 ±0.2
max. max.
0.8
0.2
a
-
-
-
-
-
1.5
1.5
-
-
-
-
max.
Specificationsforthe
radialleadtype
5. SPECIFICATIONS FOR THE RADIAL LEAD TYPE
3) Specifications for Taping
Size Code
Case Size Case Size
pcs./Bag
φ 4
φ 5
φ 6.3
φ 8
φ10
φ10
φ12.5
φ16
2,000
2,000
1,500
1,000
500
φ 4
φ 5
φ 6.3
φ 8
φ10
Hold-downTape CarrierTape
Hold-downTape
CarrierTape
Hold-downTape CarrierTape
Hold-downTape
CarrierTape
Hold-downTape
CarrierTape
Taping Code
A,A'
B,B'
C,C',C6,D
E,E',E7,E9,E12,E13,E1,9E
F,F',F8,F13,9F
F0
G
H
A,A'
B,B'
C,C',C6,D
E,E',E7,E9,E12,E13,E1,9E
F,F',F8,F13,9F
t
R
W2
W1
W0
W
H
P0
φD0
P2P
L
P1F
h
R
W2
W1
W0
W
H0
H
P0
φD0
P2P
L
P1F
h
R
W2
a
W1
H
P0
φD0
P2P
L
P1F
W0
W
h
t
R
W2
W1
H
P0
φD0
P2P
L
P1F
W0
W
h
t
R
W2
W1
W0
W
H
P0
φD0
P2P
L
P1F
h
1. Explanation of Part Number (SMD Type)
2. Specifications for Taping (SMD Type)
SVP, SVQP, SVPA, SVPB, SVPC, SVPD series
(unit : mm)
4.7
±0.2
5.6
±0.2
6.9
±0.2
8.6
±0.2
10.7
±0.2
4.7
±0.2
5.6
±0.2
6.9
±0.2
8.6
±0.2
10.7
±0.2
12.0
±0.3
16.0
±0.3
16.0
±0.3
24.0
±0.3
24.0
±0.3
5.5
±0.1
7.5
±0.1
7.5
±0.1
11.5
±0.1
11.5
±0.1
1.75
±0.1
1.75
±0.1
1.75
±0.1
1.75
±0.1
1.75
±0.1
8.0
±0.1
8.0
±0.1
12.0
±0.1
12.0
±0.1
16.0
±0.1
0.4
±0.1
0.4
±0.1
0.4
±0.1
0.4
±0.1
0.4
±0.1
5.8
±0.2
6.2
±0.2
6.2
±0.2
6.9
±0.2 6.9
±0.2 16.0
±0.3 7.5
±0.1 1.75
±0.1 12.0
±0.1 0.4
±0.1 6.2
±0.2
6.9
±0.2 6.9
±0.2 16.0
±0.3 7.5
±0.1 1.75
±0.1 12.0
±0.1 0.4
±0.1 5.3
±0.2
7.2
±0.2
8.2
±0.2
8.6
±0.2
10.7
±0.2
8.6
±0.2
10.7
±0.2
24.0
±0.3
24.0
±0.3
11.5
±0.1
11.5
±0.1
1.75
±0.1
1.75
±0.1
16.0
±0.1
16.0
±0.1
0.5
±0.1
0.4
±0.1
12.3
±0.2
13.0
±0.2
A5
B6
C5
C55
C6
E7
F8
E12
F12
AB EFWtTP
Size code
Dimension
52
Specificationsfor
theSMDtype
6. SPECIFICATIONS FOR THE SMD TYPE
Rated voltage
Rated volt.
2.5
4.0
6.3
10
16
20
25
35
Code
2R5
4
6
10
16
20
25
35
Series name Rated capacitance
Rated Cap.(µF) 3R3
4R7
10
22
100
220
470
1500
3.3
4.7
10
22
100
220
470
1500
Code
±20%
Cap.
tolerance
M
Code
Capacitance tolerance
S V P Series
SVQP Series
SVPA Series
SVPB Series
SVPC Series
SVPD Series
1) Carrier tape
Mounting parts
T
t
B
2.0±0.14.0±0.1
E
F
W
AP
Direction of unreeling
φ1.5±0.1
0
Example
2) Reel 3) Polarity
3. Minimum Packing Quantity
SVP, SVQP, SVPA, SVPB, SVPC, SVPD series
Size Code
A5
B6
C5
C55
C6
E7
F8
E12
F12
pcs./Reel (φ380)
2,000
1,500
1,300
1,000
1,000
1,000
500
400
400
53
Specificationsfor
theSMDtype
6. SPECIFICATIONS FOR THE SMD TYPE
(unit : mm)
φ21±0.8
R1.0
φ13±0.2
2±0.5
Direction of unreeling
φ380±2.0 W1
W2
φ80±1.0
Direction of unreeling
• SVP Series
• SVQP Series
• SVPA Series
• SVPB Series
• SVPC Series
• SVPD Series
Size Code W1
13.0±0.5
17.0±0.5
25.0±0.5
W2
17.5±1.0
21.5±1.0
29.5±1.0
A5
B6, C5, C55, C6
E7, F8, E12, F12
Series
SVP
SVQP
SVPA
SVPB
SVPC
SVPD
4. Recommended Reflow Condition of SMD Type
OS-CON has different characteristics against soldering heat from conventional aluminum
electrolytic capacitors or tantalum capacitors because of its unique materials and structure.
Please note the following points on soldering of OS-CON SVP, SVQP, SVPA, SVPB, SVPC and
SVPD series to draw out the best performance.
The leakage current value may increase (from a few µA to a few mA) even within the above conditions.
When the OS-CON is used in a DC circuit, the leakage current will decrease gradually through self-
recovery after voltage is applied. If your reflow profile (reflow temperature, number of reflows, etc.)
deviates from the above conditions for mounting the SVP, SVQP, SVPA, SVPB, SVPC and SVPD
series, please consult with SANYO.
Attention
:Reflow soldering may reduce the capacitance of products before or after soldering even if
soldering conditions stipulated in Recommended Reflow Condition are met.
Though the actual reflow conditions are subject to change depending on the kind of reflow
soldering method, please be aware that the peak temperature at the top of AI-case and
electrode terminals should not exceed peak temperature.
Particular notice should be given to the time that OS-CON is heated at 200°C or higher
during reflow.
Be aware that soldering considerably deviating from these conditions will cause problems
such as a 50% reduction in capacitance, and a considerable increase in leakage current.
Peak temperature (MAX.)
Preheat
200°C over time (MAX.)
220°C over time (MAX.)
230°C over time (MAX.)
Reflow number
Item
Series
250°C
60 sec.
50 sec.
40 sec.
twice or less
260°C
60 sec.
50 sec.
40 sec.
Only 1 time
54
SVP, SVQP, SVPA, SVPC, SVPD
Series
Specificationsfor
theSMDtype
6. SPECIFICATIONS FOR THE SMD TYPE
150°C to 180°C 90 ± 30 sec.
240°C
50 sec.
40 sec.
30 sec.
twice or less
250°C
60 sec.
50 sec.
40 sec.
Only 1 time
SVPB Series
150°C to 180°C 90 ± 30 sec.
250
300
200
150
100
50
0
0 30 60 90 120 150 180 210 240
(Seconds)
Duration at 230°C or higher
Preheating 150°C to 180°C
Peak temperature
Recommended reflow profile
Duration at 220°C or higher
Duration at 200°C or higher
Surface of extemal case/terminal[°C]
Note1. All temperatures are measured on the topside of the Al-can and terminal surface.
Note2. Concerning SVPB series, if 260°C peak Reflow condition is necessary, please consult with us.
55
OS-CON is an electrolytic capacitor. Up to now, an electrolytic solution and manganese dioxide have
been used as the electrolyte in electrolytic capacitors. In development of a new highly efficient
electrolytic capacitor which has a high conductivity (organic semiconductor) when compared to earlier
electrolytes, we have successfully designed the electrolytic capacitor OS-CON, featuring low impedance,
using an organic semiconductor for the electrolyte.
1. Development of OS-CON
Features of Organic Semiconductive Electrolyte
●High conductivity (low resistance value) compared to other electrolytes.
●High conductivity is stability against temperature.
Type of capacitor
Non-solid electrolytic capacitor
Solid electrolytic capacitor
Type of electrolyte
Electrolyte solution
Manganese dioxide
Organic semiconductor (TCNQ complex salt)
Conductive polymer
Conductivity (mS/cm)
The comparisons of conductivity is general.
3
30
300
3,000
OS-CON has almost the same construction as an
aluminum electrolytic capacitor, and the element consists
of rolled aluminum foils. The difference between OS-CON
and the aluminum electrolytic capacitor is that organic
semiconductive electrolyte is impregnated in behalf of
electrolyte solution. Also, SVP, SVQP, SVPA, SVPB, SVPC,
SVPD, SEP, SEQP, and SEPC series are sealed using
rubber sealing, and others are sealed using resin sealing.
2. Construction and Manufacturing Method of OS-CON
2-1. Construction of OS-CON
Constructionand
Characteristics
7. CONSTRUCTION AND CHARACTERISTICS
OS-CON
Adhesive tape
AL foil
Separator sheet
Winding Element
AL foil
AL
foil AL
foil
Rubber
Plastic spacer
Rubber
Al2O3
Separator sheet
Conductive
polymer
Element
Aluminum case
AL
foil AL
foil
Resin
Resin
Separator sheet
Organic
semiconductor
Element
Aluminum case Al2O3
Rubber sealing Resin sealing
56
2-2. OS-CON Manufacturing Method
Type :Organic semiconductor ( TCNQ complex salt )
Type : Conductive polymer
Constructionand
Characteristics
7. CONSTRUCTION AND CHARACTERISTICS
Forming
Synthesis of TCNQ complex salt
Lead wire
Separator Sheet
Aluminum etching foil
Foil slitter
Winding
Forming and carbonization
Sleeve covering
Aging and inspection
SP series and others
immersion
Resin sealing
Epoxy resin
Stuff TCNQ complex salt in a case
Sleeve
Forming
Lead wire
Separator Sheet
Aluminum etching foil
Foil slitter
Winding
Forming and carbonization
Aging and Inspection
Forming and Marking
SVP, SVQP, SVPA, SVPB, SVPC and SVPD series
Immersion and polymerization
Rubber sealing (curl)
Rubber • Case
Plastic Spacer
Conductive polymer
Forming
Lead wire
Separator Sheet
Aluminum etching foil
Foil slitter
Winding
Forming and carbonization
Aging and Inspection
Marking
SEP, SEQP and SEPC series
Immersion and polymerization
Rubber sealing (curl)
Rubber • Case
Conductive polymer
57
The OS-CON is an electrolytic capacitor, however, it has excellent frequency characteristics. Using a high
conductive organic semiconductor as the electrolyte, and the thin electrolyte layer brought by the adoption of
winding element, improves ESR (Equivalent Series Resistance) greatly, and provides the excellent frequency
characteristics.
Fig.A shows the impedance frequency characteristics of OS-CON, compared to other types of capacitors.
The OS-CON shows a nearly ideal curve. When compared at 100kHz, OS-CON 56µF, and low
impedance aluminum electrolytic capacitor 1,000µF, nearly have the same feature. If the frequency gets
higher, the capacitance ratio between OS-CON and aluminum electrolytic capacitor gets higher.
Fig.B shows the impedance and ESR frequency characteristics of OS-CON. The resonance point of the
OS-CON is at 100kHz to 10MHz. The ESR becomes about 5mΩ or less at 100kHz (560µF products)- an
extremely small value.
Fig.A
1. OS-CON Electrical Characteristics
1-1. Frequency Characteristics
7. CONSTRUCTION AND CHARACTERISTICS
Fig.B
Constructionand
Characteristics
(at 25°C)
Frequency (Hz)
100
10
1
0.1
0.01 1K 10K 100K 1M 10M 20M
A : OS-CON
B : AI-E (Low Impedance)
56µF/16V (φ8X6.9L:347I)
47µF/16V (φ6.3X7L:218I)
C : Ta-cap
47µF/16V (φ6.3X11L:311I)
D : AI-E (Low Impedance)
1000µF/16V (φ16X25L:5024I)
A
D
C
B
Impedance (Ω)
(at 25°C)
Frequency（Hz）
100
10
1
0.1
0.01
0.001 1K 10K 100K 1M 10M 20M
Impedance (Ω)
ESR (Ω)
Impedance
ESR
AB
B
D
A
C
C
D
OS-CON
A→35SVPD8R2M
B→16SVPA82MAA
C→4SEPC560MX
D→2SEPC2700M
OS =OS-CON Purple
AI =AL-E. Cap Blue
Ta =TantalumCap. Green
CR(X5P) =Cera Cap. Red
(X5P Type)
CR(X5U) =Cera Cap. Pink
(X5U Type)
Characteristics at high temperature
and low temperature of the OS-CON is
that it features little change in
temperature for the ESR.
Since ESR is dominant at high
range of impedance (near resonance
point), the ESR value greatly affects
noise clearing capacity. What ESR
changes a little against temperature
means that noise clearing ability
changes a little against temperature
as well.
The OS-CON is suitable for outdoor
apparatus.
58
1-2 Characteristics at high temperature and low temperature
Constructionand
Characteristics
7. CONSTRUCTION AND CHARACTERISTICS
100 Temperature Characteristics
Equivalent Series Resistance
at 100kHz
Temperature (°C)
10µF
10
1
0.1
0.01
0.001
-55 -20 20 85 1050
Al
Ta
OS
CR(X5U)
CR(X5P)
ESR (Ω)
20
10
0
-10
-20
-30
-40
-50
Temperature Characteristics
Capacitance Change
at 120kHz
Temperature (°C)
10µF
-55 -20 20 85 1050
Al
Ta
OS
CR(X5U)
CR(X5P)
Capacitance Change (%)
When voltage is applied to ceramic
capacitors, they show a bias
characteristics where static capacitance
is reduced. Our OS-CON product,
however, will show no reduction in
capacitance for applied voltage within its
rating (Note: our 25V product utilized
temperature derated voltage).
As bias is applied to multi-layer ceramic capacitor, ESR value changes considerably between 300kHz to
1MHz. Also, it brings change of Impedance value. There is not change of ESR value in OS-CONs even
if applies bias. 59
OS.1 =OS-CON(10SVP10M) Purple
OS.2 =OS-CON(25SVPD10M)
Light Purple
CR(X5P) =Cera Cap. Red
(X5P Type ; 10V-10µF)
CR(X5U) =Cera Cap. Pink
(X5U Type ; 50V-10µF)
1-3 Bias Characteristics
Constructionand
Characteristics
7. CONSTRUCTION AND CHARACTERISTICS
1) Capacitance
2) Impedance, ESR
Multi-layer Ceramic capacitor (25V, 4.7µF)
0V bias 0V bias
20V bias20V bias
OS-CON (25SVPD10M)
Multi-layer Ceramic capacitor (25V, 4.7µF)
OS-CON (25SVPD10M)
0
-10
-20
-30010203035
Bias Voltage Characteristics
Capacitance Change
at 120Hz
10µF
CR(X5P) CR(X5U)
OS.1 OS.2
Capacitance Change (%)
Bias Voltage (V)
ESR、Impedance(Ω)
10 100
Frequency(kHz) 1000 10000
0.01
0.001
0.1
1
10
100
Z
ESR
ESR、Impedance(Ω)
10 100
Frequency(kHz) 1000 10000
0.01
0.001
0.1
1
10
100
Z
ESR
ESR、Impedance(Ω)
10 100
Frequency(kHz) 1000 10000
0.01
0.001
0.1
1
10
100
Z
ESR
ESR、Impedance(Ω)
10 100
Frequency(kHz) 1000 10000
0.01
0.001
0.1
1
10
100
Z
ESR
When selecting smoothing capacitors for power supply, the
allowable ripple current of the capacitor is one of the
standard selections.
The allowable value of ripple current is decided by the
generated heat of the capacitor, this heating is due to the
ESR. Since a large ESR capacitor generates larger heat
value, it can not make the flow of ripple current greater.
Compared to other electorolytic capacitors, ESR of OS-CON
is so small that it can allow far more ripple currents.
OS-CON (SVP series) Light Purple
OS-CON (SA series) Purple
AI-E. Cap. (Low Impedance) Blue
Ta.Cap. (Low ESR) Green
※SVP, SA series is almost same as
the regulation.
1-4 Allowable Ripple Current
7. CONSTRUCTION AND CHARACTERISTICS
OS-CON is aluminum solid capacitor of high performance with large rated capacitance and low
ESR. Recently in circuit technologies, the constituent of ESL is picked up in the domain of the
high frequency with that of electronic equipment.
1-5. ESL Characteristics
<Eqivalent series circuit of capacitor>
Approximate ESL values of SEP series
60
※Measuring position：roof of lead terminal
※All following values are not gurranteed, and there are some
cases that the values differ in the measuring way.
Please contact SANYO for detail.
Constructionand
Characteristics
3.5 3.5
4
3
2.5
2
1.5
1
0.5
0
Alowable Ripple Current (100kHz45°C)
33µF
16V
Ripple Current (Arms)
1.37
0.45 0.74
47µF
16V
1.83
0.45
0.84
100µF
10V
2.67
0.45
1.10
220µF
10V
3.37
1.39
1.80
2.67
3.74
0.48
1.15
4
3
2.5
2
1.5
1
0.5
0
Alowable Ripple Current (100kHz85°C)
33µF
16V
Ripple Current (Arms)
0.96
0.45 0.74
47µF
16V
1.28
0.45
0.84
100µF
10V
1.87
0.45
1.10
220µF
10V
2.36
1.39
1.80
2.67
3.74
0.48
1.15
ESL
Size
Code
C6
E7
F8
E12
F13
at 10 MHz at 40 MHz
2.6
4.0
5.4
4.0
6.0
2.4
3.8
5.2
3.8
5.8
（unit：nH）
8. RELIABILITY
The left fig. shows a tendency of
each characteristics of OS-CON
(Organic semiconductor type) in
endurance test.
The tendency of capacitance
change shows the same as
aluminum electrolytic capacitor.
However, aluminum electric
capacitor has yield point (time) for
dry-up of electrolytic solution, but
OS-CON doesn't. The capacitance
of OS-CON decreases gradually,
which is semi-permanent. These
changes are little difference if
applied voltage or not, except for
leakage current.
1. Organic semiconductor (TCNQ complex salt) type OS-CON (16SH33M)
The left fig. shows a tendency of
each characteristics of OS-CON
(Organic semiconductor type) in
damp heat test.
Compared with endurance, it
seems that the characteristics is a
little change. It is necessary to note
using OS-CONs when it is damp
heat environment, such as outdoors.
1-1 Endurance (105°C, applied 16V)
1-2 Damp heat (60°C90% RH, without load)
1
10
100
0.10 5000 10000
0 5000 10000
0 5000 10000
0 5000 10000
Leakage current
（μA at 16V30s）
20
40
80
60
100
0
ESR（mΩ at 100kHz）
0.02
0.04
0.08
0.06
0.1
0
tanδ（at 120Hz）
−10
0
10
20
−20
Capacitance change（%）
1
10
100
0.10 5000 10000
0 5000 10000
0 5000 10000
0 5000 10000
Leakage current
（μA at 16V30s）
20
40
80
60
100
0
ESR（mΩ at 100kHz）
0.02
0.04
0.08
0.06
0.1
0
tanδ（at 120Hz）
−10
0
10
20
−20
Capacitance change（%）
61
Reliability
8. RELIABILITY
The figure on the left-hand side
shows the tendencies of each
characteristic of the conductive
polymer type OS-CON in an
endurance test.
Little change in characteristics can
be seen after 10,000 hours
because of adoption of conductive
polymer that excels in thermal
stability. Also, the change in
characteristic is very little compared
with Organic semiconductor type
OS-CON.
2. Conductive polymer type OS-CON (16SVP39M)
The figure on the left-hand side
shows the tendencies of each
characteristic of the conductive
polymer type OS-CON in a high-
temperature and high-humidity test.
As is the case with the endurance
test, little change in characteristics
can be seen after 10,000 hours in
a high-temperature and high-
humidity environment because of
the excellent thermal stability of
conductive polymer. Also, the
change in characteristics is very
little compared with Organic
semiconductor type OS-CON.
2-1 Endurance (105°C, 16V applied)
2-2 High temperature and High humidity test (60°C90% RH, without load)
1
10
100
0.10 5000 10000
0 5000 10000
0 5000 10000
0 5000 10000
Leakage current
（μA at 16V30s）
20
40
80
60
100
0
ESR（mΩ at 100kHz）
0.02
0.04
0.08
0.06
0.1
0
tanδ（at 120Hz）
−10
0
10
20
−20
Capacitance change（%）
1
10
100
0.10 5000 10000
0 5000 10000
0 5000 10000
0 5000 10000
Leakage current
（μA at 16V30s）
20
40
80
60
100
0
ESR（mΩ at 100kHz）
0.02
0.04
0.08
0.06
0.1
0
tanδ（at 120Hz）
−10
0
10
20
−20
Capacitance change（%）
62
Reliability
8. RELIABILITY
4. Reliability Presumption of life
3. Temperature Acceleration Test (Endurance)
The decrease in capacitance
brings lifetime failure of OS-CONs,
its main reason depends on
temperature.
The left fig. shows the speed of
decreasing at each temperature.
This graph indicates that temper-
ature coefficient of OS-CON
lifetime is 10 times by 20°C
reduction. Compared with this,
aluminum capacitor's is 2 times by
10°C reduction. The followings are
converted value at 85°C and 75°C
by using 105°C X 2000h.
These values are not guaranteed
but presumptive values. It means
that the life time of OS-CON is
longer than other 105°C X 2000h
guaranteed products.
※Guarantee temperature of OS-CON is 105°C, except for SEQP, SVQP and SVPD series.
As described on P61, 62, an item for endurance, capacitance of OS-CON is getting smaller as
times go by. This means wear-failure of OS-CON is open mode for capacitance-decrease, which
is a main failure factor of OS-CON.
The lifetime is different by each operating temperature and self-heating by ripple current.
The Presumptive lifetime of OS-CON is about 10 times 20°C reduction.
The following formula outline could make it possible to estimate the presumptive lifetime of
OS-CON at ambient temperature Tx (°C).
-10
-1
100
Time (h)
10 1000
Capacitance Change (%)
Capacitance Change
at 120Hz
22µF/10V
155°C
145°C135°C125°C
105°C
85°C
70°C
Estimation of life time
※The result of the following page estimation is not guaranteed but presumptive values based
on actual measurement. Then, the estimated life-span is limited up to 15years.
63
Reliability
※OS-CON
105°C
95°C
85°C
75°C
2,000h
6,324h
20,000h
63,245h
105°C
95°C
85°C
75°C
2,000h
4,000h
8,000h
16,000h
※Aluminum electrolytic capacitor
Lx=LoX10
Lx : Life expectance (h) in actual use (temperature Tx)
Lo : Guaranteed (h) at maximum temperature in use
To : Maximum operating temperature
Tx : Temperature in actual use (ambient temperature of OS-CON) (°C)
∆Tx : Self-heating temperature by Ripple current (°C)
∆Tx=(Ix/Io)2 X ∆T Ix≦Io
Io : Allowable ripple current at 45°C or less (Arms)
Ix : Actual flow of ripple current (Arms)
Note : The value of Ix should be below the value of Io with the coefficient
To-(Tx+∆Tx)
20
Lx=LoX10
Lx : Life expectance (h) in actual use (temperature Tx)
Lo : Guaranteed (h) at maximum temperature in use
To : Maximum operating temperature
Tx : Temperature in actual use (ambient temperature of OS-CON) (°C)
The following is the presumptive lifetime at over 105°C, which is concerned with the heat-proof characteristic
of seal-rubber.
To−Tx
20
Ambient Temp. (°C)
Coefficient
≦45
1.0 45＜Tx≦65
0.85 65＜Tx≦85
0.7 85＜Tx≦95
0.4 95＜Tx≦105
0.25
Conductive polymer electrolyte type
(SVP, SVQP, SVPA, SVPB, SVPC, SVPD, SEP, SEQP and SEPC series)
Organic Semiconductive electrolyte type (SC, SA, SL, SH, SS, SP, SF and SPA series)
Case size
∆T (°C) A, A'
8B, B'
10 C, C'
15 D
16 E, E', E1, 9E
18 F, F', F
0
, G, H, 9F
20
8.RELIABILITY
1. Applying voltage over the rated voltage.
2. Applying reverse voltage over the specification.
3. Excessive mechanical stress.
4. Applying rush current by sudden charge or discharge over the specification.
For details, please refer to “Operating Precautions” on page 4 to 10.
5. Factors of Short Circuit Mode
Self-heating value ∆T by maximum allowable ripple current (45°C or less) varies according to case size.
Refer to the rough values in the chart below :
There is no need to apply a temperature-compensating coefficient for the ripple current in the SVP, SVQP,
SVPA, SVPB, SVPC, SVPD, SEP SEQP and SEPC series, which use conductive polymer electrolyte.
The self-heating temperature under application of the rated ripple current is approx. 20°C in the SVP, SVPA,
SVPB, SVPC, SEP and SEPC series (10°C in A5 and B6 sizes of SVP, SVPA and SVPC series), and
approx. 2°C in the SVQP, SEQP and SVPD series, but the estimated life expectancy can be calculated
without consideration of self-heating under application of the ripple current because of the excellent heat-proof
characteristics of conductive polymer.
64
Reliability
SVPB
1,000h
SVP, SVPA, SVPC, SEP(2.5RV),SEPC
2,000h
SEP(
4〜25RV
)
3,000h
SVQP, SEQP
5,000h
3,160h
1,000h
SVPD
5,000h
3,160h
2,000h
Presumptive
lifetime
Temperature
in actual use
Tx＝105°C
105°C＜Tx≦115(°C)
115°C＜Tx≦125(°C)
Presumptive lifetime (Lx)
Summary of features for OS-CON
OS-CON is a low ESR capacitor.1
☆A frequency characteristics of impedance shows an ideal curve.
Ideal to use as de-coupling capacitor for removing such noise as ripple, spike, digital,
static, audio, etc.
☆Able to flow large ripple current.
Ideal for miniaturization, as a smoothing capacitor of switching power supply.
☆Able to discharge rapidly.
Ideal for use as back-up capacitor in a circuit where large current is consumed at
high-speed.
ESR of OS-CON is not dependent on temperature.
2
☆The OS-CON is useable for low temperature specification equipment. (0°Corless)
OS-CON has a long life.
3
☆You can expect to use OS-CON for 50,000h at 85°C. (SVQP,SVPD,SEQP and SH series)
Ideal for industrial devices that shall be used for a long period.
9. Features of OS-CON
65
Features
When the OS-CON is used in the following circuit, an excessive rush current may flow because the
ESR is extremely small. Therefore, consideration must be given to and measures be taken in design,
and production facilities, etc. Maintain the rush current at 10A or less. If as long as 10 times of the
allowable ripple current of the OS-CON exceeds 10A, reconfigure so that the ripple current does not exceed 10
times.
Explanation of the rush current suppression methods
1. DC-DC converter input circuits
a. DC-DC converter circuits are usually
a PCB block shape and use a low
ESR capacitor in the input section
for high performance and miniaturi-
zation.
b. Consideration must be given to the
rush current that flows from the
equipment when the DC-DC con-
verter is adjusted and inspected.
※There is the possibility that an extremely large
amount of rush current will flow through the
OS-CON during voltage adjustment or inspection of
the DC-DC converter's circuit block when the power
impedance supplied from the equipment being
adjusted or inspected is exceedingly low and the
current suppression function of the current limiter
and such is provided.
(Refer to the example in Figure 1.)
※Rush current suppression measures must be taken
for DC-DC converter adjustment and inspection
equipment. (Refer to page 67.)
2. Circuits driven by chargeable batteries
a. Circuit power lines equipped with
batteries or rechargeable batteries
use capacitors such as the OS-CON
with very low ESR to increase
performance and facilitate miniaturi-
zation.
※There is the possibility of an extremely large
amount of rush current flowing through the low
ESR capacitors arranged along the power line when
the power is turned on for circuits driven by nickel
cadmium chargeable batteries etc. that have a very
low internal resistance.
(Refer to the example in Figure 1.)
※A protection circuit like that is shown below is
usually used to suppress rush current of charging
battery.
The main points to be aware of are listed here.
●Normally, an inductance coil with a magnetic core
is used, however, inductance sometimes drops
depending on the frequency, so it must be
checked.
●The peak current value of the diode when
absorbing counter electromotive force.
When there is no protection resistor Z as shown in
Figure 1 and the power supply has Re nearly= 0Ω,
the OS-CON's rush current is as follows.
Rush current (A) = Supplied DC voltage (E)
ESR+Re+Z (Ω)
Example : For 25SC10M
ESR=90mΩ, or less and
Supplied DC voltage=20V,
20V
less than 0.09Ω= 222A or more
3. No protection resistance rush current
0. Precautions when using OS-CONs in circuits
Inductance coil
Diode for absorbing counter electromotive force
Direction of current flow
Z (Protection circuit)
Capacitor
ESR
Capacitance
Load
resistance
Power supply
Power supply
voltage E
internal resistance
Re
Fig. 1
66
Precautionswhenusing
OS-CONincircuits
Examples of rush current suppression methods
1)Resistormethod
※Rush current is as shown below.
※Rush current is usually determined mainly
by R as Re and ESR are low.
※Although the current is simply and clearly
suppressed with this method, resistor R for
suppressing current causes the voltage to
drop.
※The rush current is exactly the same as in
the resistor method, however, there is
almost no voltage drop caused by the
current suppression resistor from the time
the relay contact goes ON.
※Note: After the capacitor has finished
recharging, it may take some time or setting of
voltage to turn the relay ON.
2)Resistorandrelaymethod
3)ResistorandMOS-FETmethod 4)Powerthermistor
E (V)
Re+ESR+R (Ω)
※Rush current is exactly the same as in the
resistor method, however, there is almost
no voltage drop caused by R after rushing,
the same as the resistor and relay method.
※Note: As with the resistor and relay method,
after the capacitor has finished recharging, it
may take some time or setting of voltage to
turn the MOS-FET ON.
※Taking an example of a common power
thermistor, the value is 8Ω at 25°C, but
becomes 0.62Ω at 130°C.
※When the power thermistor is connected as
shown in the above diagram, rush current
is suppressed due to the large resistor
value at the moment the switch is turned
on.
After this, the output loss (voltage drop) is
reduced.
However, the power thermistor has a heat
constant, meaning that the large resistor
value in the initial state cannot be regained
the moment the switch is turned off.
As a result, the ability to suppress current
is lost when the switch is turned off and
on quickly.
Rush current (A) =
0. Precautions when using OS-CONs in circuits
67
Precautionswhenusing
OS-CONincircuits
MOS-FET
R
Capacitor
ESR
Capacitance
Power supply
voltage E
Re
Power thermistor
Capacitor
ESR
Capacitance
Power supply
voltage E
Re
Relay contact
R
Relay coil
Power supply Capacitor
ESR
Capacitance
Power supply
voltage E
internal resistance
Re
R Resistor for current suppression
Power supply
Capacitor
ESR
Capacitance
Power supply
voltage E
internal resistance
Re
OS-CON has an exceedingly low ESR. When the load impedance during discharge is extremely low,
there is the chance that it allows a large amount of discharge current to flow for an instant.
Please note the following points when using the OS-CON in sudden discharge operations.
Sudden discharge current suppression
※The discharge equivalent circuit is as shown to
the left.
※The formula for estimating discharge current is
given below.
As shown in the above example, there is the chance an extremely large amount of discharge current
will flow when electric charge is discharged with 0Ω loading.
When the OS-CON is to be used in sudden discharge operations, configure the circuit so that the peak
discharge current becomes 10A or less, using the above mentioned rough estimate expression as a
guide. However, if 10 times the allowable ripple current of the OS-CON exceeds 10A, reconfigure so
that 10 times the allowable ripple current is not exceeded.
Discharge current (A) = Charging voltage (V)
ESR+Z1+Z2 (Ω)
Example:For25SC10M
●ESR=90mΩ orless
●Chargingvoltage=20Visset,then
●Z1,Z2=0Ω
Charging voltage 20V
ESR 0.09Ω or less
= 222A or more
Discharge current (A) =
0. Precautions when using OS-CONs in circuits
Capacitor
ESR
Capacitance
Z 2
Z 1
Protection resistor
Load
circuit
68
Precautionswhenusing
OS-CONincircuits
Aluminum electrolytic capacitors and OS-CONs are often connected in parallel to improve circuit density
and cost performance of ripple absorbing capacitors.
Please give full consideration to the following.
Precautions when connecting an OS-CON and an aluminum electrolytic capacitor in parallel
Ir ：Total ripple current
ESR：Capacitor's equivalent series resistance
Cz ：Impedance of the capacitor's capacitive
components
Fig.1
※Ripple current flowing through each parallelly connected capacitor can be found by using the values
symbolized in the reference equivalent circuit in Figure 1.
※The equivalent circuit in Figure 1 can be simplified as shown in Figure 2 when it is to be used for
frequencies between 100kHz and a few MHz.
(Assuming the capacitor's capacitance is more than 10µF.)
Fig.2
※Since impedance becomes exceedingly
low when the capacity is more than
10µF. And frequencies higher than
100kHz, each Cz in Figure 1 can be
omitted changing the actual ripple current
value to that shown in Figure 2.
Ir1=Ir XESR2
ESR1 + ESR2
=1000mAX
≒ 727mArms
80mΩ
30mΩ+80mΩ
As explained here, when OS-CON and an aluminum electrolytic capacitor are to be used in parallel
connection, select the appropriate type of OS-CON that has an extra margin of capacity since a large
amount of ripple current flows through it.
Formula for calculating the ripple current value ※As shown here, although the OS-CON
has 1/10th of the capacity of that of the
mated capacitor, it allows 73% of the
ripple current to flow.
0. Precautions when using OS-CONs in circuits
Cz1
C1 C2
ESR1
Cz2
ESR2
lr lr1 lr2
30mΩ
ESR1 80mΩ
ESR2
OS-CON100µF AI-E1000µF
lr=1000mArms lr1 lr2
69
Precautionswhenusing
OS-CONincircuits
-. Application
While there is a tendency to downsize switching power supplies capacitors still remain one of the parts occupying
large areas of circuit boards. The working temperature is an important consideration when selecting a capacitor,
since it generally results in widely varying capacitor characteristics. The following experiment shows the superior
ripple removal capability of the OS-CON at high frequencies in wide range of working temperatures.
A general chopper switching power supply was used to test the OS-CON against two alternatives. SANYO
OS-CON, low-impedance aluminum electrolytic capacitor, and low-ESR tantalum capacitors were each
connected as the capacitor in the output side smoothing circuit at working temperatures of –20°C, 25°C and
70°C to compare the output residual ripple voltage.
Initially SANYO OS-CON 100uF/6.3V (6SVP100M φ6.3mm×L6.0mm) was used as the output side smoothing
capacitor (C) in the above test circuit, the residual ripple voltage was measured at ambient temperature of
–20°C, 25°C, 70°C.
Low-impedance aluminum electrolytic capacitors and low-ESR tantalum capacitors were selected for
measurement at each temperature –20°C, 25°C, 70°C so that the residual ripple voltage became equal to that
achieved when the OS-CON 100uF/6.3V was used.
Finally, the residual ripple voltage was measured at each temperature (-20°C to 70°C) with an equal number of
side smoothing capacitors to the 25°C conditions, and the rates of change in the ESR of the smoothing
capacitors were calculated from the amounts of change.
RippleremovalcapabilityofOS-CON
Experiment
Result
Ambient temperature
25°C
- 20°C
70°C
OS-CON
1
1
1
Aluminum Electrolytic capacitor
7.15
16.7
4.77
Tantalum capacitor
1.46
1.46
1.46
Table2 Rates of change in ESR on the basis of 25°C※
Ambient temperature
25°C
- 20°C
70°C
※Rate of change in ESR=
From the above results, it can be seen that SANYO OS-CON excels in temperature characteristics.
Residual ripple voltage at ambient temperature
X
Oscillation frequency at ambient temperature
Residual ripple voltage at 25°C X Oscillation frequency at 25°C
OS-CON
1
1.14
0.952
Aluminum Electrolytic capacitor
1
3.03
0.587
Tantalum capacitor
1
1.27
0.85
VIN =
5V SW IC
200kHz C
+
Specimen
LVOUT = 3.3V, IOUT = 3A
RL
Osilloscope
Table1
On-board area ratios of capacitors at each temperature (when the residual ripple voltage is on the same level)
70
Application
-. Application
71
Application
Table-1
Ambient temperature 25°C
200kHz
OS-CON
100µF/6.3V
1pc
22.8mV
6.6 X 6.6
1
Fig1
Aluminum Electrolytic capacitor
680µF/6.3V
3pcs
23.8mV
10.5 X 10.5
7.15
Fig2
Tantalum capacitor
100µF/10V
2pcs
24.8mV
7.5 X 4.5
1.46
Fig3
Capacitor type
capacitance/voltage
Quantity
Residual ripple voltage
Size（※2）（mm）
On-board area ratio
Oscillation frequency
Fig
Table-2
Ambient temperature - 20°C
250kHz
OS-CON
100µF/6.3V
1pc
20.8mV
6.6 X 6.6
1
Fig4
Aluminum Electrolytic capacitor
680µF/6.3V
10.5 X 10.5
16.7
7pcs
24.4mV
(3pcs)
(57.6mV)
Fig5 Fig6
Tantalum capacitor
100µF/10V
2pcs
25.2mV
7.5 X 4.5
1.46
Fig7
Capacitor type
capacitance/voltage
Quantity（※1）
Residual ripple voltage
Size（※2）（mm）
On-board area ratio
Oscillation frequency
Fig
※1）Figures in brackets ( ) are conditions at 25°C.
※2）For items other than Ta, rather than the element diameter, the base plate dimensions were taken as the
maximum dimensions.
Table-3
Ambient temperature 70°C
170kHz
OS-CON
100µF/6.3V
1pc
25.6mV
6.6 X 6.6
1
Fig8
Aluminum Electrolytic capacitor
680µF/6.3V
10.5 X 10.5
4.77
2pcs
24.0mV
(3pcs)
(16.4mV)
Fig9 Fig10
Tantalum capacitor
100µF/10V
2pcs
24.8mV
7.5 X 4.5
1.46
Fig11
Capacitor type
capacitance/voltage
Quantity（※1）
Residual ripple voltage
Size（※2）（mm）
On-board area ratio
Oscillation frequency
Fig
OS-CON 100µF/6.3V
Fig125°C (1pc)
Fig225°C(3pc)
Fig 325°C (2pc)
-. Application
CH1＝20mV
AC 1:1 (2us/div)
200kHz
22.8mV
CH1 = 20mV
AC 1:1 (2us/div)
200kHz
23.8mV
CH1 = 20mV
AC 1:1 (2us/div)
200kHz
24.8mV
●Comparison at 25°C
Low-impedance aluminum electrolytic capacitor 680µF/6.3V
Low-ESR Tantalum capacitor 220µF/10V
73
Application
-. Application
Low-impedance aluminum electrolytic capacitor 680µF/6.3V
Fig 4 -20°C (1pc)
Fig 5 -20°C (7pc) Fig 6 -20°C (3pc)
Fig 7 -20°C (2pc)
(2us/div)
200kHz
23.8mV
CH1 = 20mV
AC 1:1 (2us/div)
250kHz
24.4mV
CH1 = 20mV
AC 1:1 (2us/div)
250kHz
25.2mV
CH1 = 20mV
AC 1:1 (2us/div)
250kHz
57.6mV
CH1 = 20mV
AC 1:1
OS-CON 100µF/6.3V
Low-ESR Tantalum capacitor 220µF/10V
●Comparison at -20°C
74
Application
OS-CON 100µF/6.3V
Fig 8 70°C (1pc)
-. Application
CH1 = 20mV
AC 1:1 (2us/div)
170kHz
25.6mV
Fig970°C(2pc) Fig1070°C(3pc)
CH1 = 20mV
AC 1:1 (2us/div)
170kHz
24.0mV
CH1 = 20mV
AC 1:1 (2us/div)
170kHz
16.4mV
Fig 11 70°C (2pc)
CH1 = 20mV
AC 1:1 (2us/div)
170kHz
24.8mV
Low-ESR Tantalum capacitor 220µF/10V
Low-impedance aluminum electrolytic capacitor 680µF/6.3V
●Comparison at 70°C
75
Application
IC, especially MPU that are lately used in electronic devices operate at very high processing speed.
PCB's are able to be more densely populated by reduction of operating voltage and getting narrow
pattern space. Involved in changing to lower voltage, current load is increasing with a development of
new MPU.
A sudden change of current load with larger variable load at high speed causes the voltage variation of
supply line, and it makes MPU work wrong.
Let us evaluate the excellent back-up performance of OS-CON compared to that of other electrolytic
capacitors.
OS-CON high speed back-up performance
(Back-up capacitor for variable load)
Capacitors with low ESR and large capacitance are necessary for high-speed load fluctuations.
The OS-CON can provide the largest capacitance among low ESR capacitors, and in this regard,
the OS-CON is a suitable back-up capacitor.
1. Test condition
Switching wave form
Item Condition
5µs
12.5µs
20ns
2A
4V
1Ω
Load condition
Test circuit
Whole wave form Rising wave form
Load width
Cycle
Rising time
Current load
Voltage
Power supply
impedance
2V/div
5µs/div
2V/div
20ns/div
The value of capacitance for back-up will be:
C= C : Capacitance (F)
ESR : ESR (Ω)
∆V : AC Volt tolerance (V)
∆t : reaction time (second)
∆I : load current change (A)
∆I X∆t
∆V -∆I X ESR
-. Application
CH3＝2V
AC 10 : 1 CH3＝2V
AC 10 : 1
Load current
Backup waveform
Oscilloscope
Sample
1Ω
2Ω
Power
supply
SW
V
5us/div 20ns/div
Application
76
2.Result
Compared with same capacitance, OS-CON's voltage drop of supply line is 104mV, but low-
impedance Aluminum electrolytic capacitor indicates 548mV (5.3times of OS-CON), and low ESR
Tantalum electrolytic capacitor indicates 212mV (2times of OS-CON).
2-1ComparisonbetweenOS-CONandothercapacitorswithsamecapacitance
OS-CON
10SP100M,ESR:21mΩLow Z Aluminum capacitor
10V100µF,ESR:425mΩLow ESR Tantalum capacitor
10V100µF,ESR:85mΩ
∆V=104mV ∆V=548mV ∆V=212mV
200mV/div
5µs/div 200mV/div
5µs/div 200mV/div
5µs/div
∆V=104mV ∆V=128mV ∆V=116mV
200mV/div
5µs/div 200mV/div
5µs/div 200mV/div
5µs/div
∆V=104mV ∆V=404mV ∆V=144mV
200mV/div
5µs/div 200mV/div
5µs/div 200mV/div
5µs/div
To obtain similar level of voltage drop to 10SP100M, Low Z Aluminum electrolytic capacitor needs
1,500µF or more. Low ESR Tantalum electrolytic capacitor needs 220µF X 2pcs or more.
Compared them under the lower temperature, OS-CON is able to keep stable, while the low Z
aluminum capacitor has 3.2 times larger drop of the voltage and the low ESR tantalum capacitor
has 1.2 times larger drop of the voltage.
2-2
A : Examination of same level variable load
B : In case of lower temperature (-20°C)
OS-CON
10SP100M Low Z Aluminum capacitor
10V1,500µFLow ESR Tantalum capacitor
10V220µF×2
OS-CON
10SP100M Low Z Aluminum capacitor
10V1,500µFLow ESR Tantalum capacitor
10V220µF X 2
-. Application
77
Application
CH2＝200mV
AC 1 : 1 CH2＝200mV
AC 1 : 1
5us/div 5us/div CH2＝200mV
AC 1 : 1 5us/div
CH2＝200mV
AC 1 : 1 CH2＝200mV
AC 1 : 1
5us/div 5us/div CH2＝200mV
AC 1 : 1 5us/div
CH2＝200mV
AC 1 : 1 CH2＝200mV
AC 1 : 1
5us/div 5us/div CH2＝200mV
AC 1 : 1 5us/div
As a means of removing noise from power supply lines, a low-pass filter such as shown below may be
used.
In recent years, switching power supplies have been referred to as power sources, which are compact
and highly efficient, but must be large noise sources in not a few cases. Also, digital circuits are
various types of noise sources, and in most of the devices with mixed noise-sensitive analog circuits,
entry of high-frequency noise into the analog circuits is prevented by connecting these low-pass filters to
the power supply lines of the analog circuits.
Then, the ESR of capacitors in use affects the damping factor of filters, and an ideal damping effect can
be expected with decrease in the ESR. This is because the capacitor's capacitance and ESR make a
zero, which is a first order phase lead network, grow, so that the damping factor effect is cancelled by
+20dB/dec at frequencies higher than zero. In other words, the damping factor effect is lost from -
40dB/dec to -20dB/dec in the LC filter, and from -20dB/dec to 0 in the RC filter.
Therefore, there are not a few cases where this zero phenomenon affects such problems that the noise-
cutting effect cannot be produced in spite of an increase in the capacitance of the capacitor in use.
Due to its small ESR, the OS-CON is most effective with this low-pass filter.
Next, comparisons of actual damping factor effects are made with an aluminum electrolytic capacitor.
The capacitors used for comparisons are as follows:
• OS-CON ：16V/33uF, ESR=37mΩ (16SA33M) ※ESR is an actual measurement.
• Aluminum electrolytic capacitor ： 10V/33uF, ESR=1410mΩ
Application to low-pass filter circuits
-. Application
Fig.1 LC Filter Fig.2 RC Filter
Fig.3 Actual damping factor
fzfc Frequency
(a) LC Filter
Attenuation
0dB
Actual
damping factor
When the
ESR is low
Ideal
damping factor
When the
ESR is low
Ideal
damping factor
fzfc Frequency
(b) RC Filter
Attenuation
0dB
Actual
damping factor
78
Application
In any of these instances, it can be seen that the OS-CON shows an damping effect in higher
frequency regions.
These measurements were made only at room temperature. It is, however, needless to say that the
difference will be more obvious at low temperatures (especially 0°C or less). This is because the ESR
of the aluminum electrolytic capacitor increases extremely at low temperatures, while the ESR of the
OS-CON hardly changes at low temperatures, which does not affect the damping effect of the filter.
-. Application
Frequency [Hz]
Frequency characteristics
Gain [dB]
80
60
40
20
0
-20
-40
-60
-80
10 100 1k 10k 100k 1M
1) OS-CON
q LC Filter (L=10uH)
Frequency [Hz]
Frequency characteristics
Gain [dB]
80
60
40
20
0
-20
-40
-60
-80
10 100 1k 10k 100k 1M
2) Aluminum electrolytic capacitor
Frequency [Hz]
Frequency characteristics
Gain [dB]
80
60
40
20
0
-20
-40
-60
-80
10 100 1k 10k 100k 1M
1) OS-CON
w RC Filter (R=5.6Ω)
Frequency [Hz]
Frequency characteristics
Gain [dB]
80
60
40
20
0
-20
-40
-60
-80
10 100 1k 10k 100k 1M
2) Aluminum electrolytic capacitor
79
Application
It is said that to restrain output ripple current, the output smoothing capacitor of the switching power
supply is suitable to use the smaller ESR capacitor. However when the low ESR capacitor is used, the
phenomenon sometimes occurs that is called the abnomal oscillation of output voltage.
The occurrence degree of the abnormal oscillation of output voltage changes even if it depends on the
topology such as the control system, and Boost and Buck style. We explain the mechanism and the
treatment method of output voltage oscillation with the example of the Buck style switching regulator
under the voltage control mode.
1. Abnormal oscillation of output voltage
The switching power supply usually has the negative feed-back circuit to stabilize output voltage. The
outline control block is shown in Figure 1. The difference between output voltage and standard voltage
Vref are amplified with the error amplifier and convert to the digital signal with the PWM comparator
and flip on and flip off switch Q1. Input voltage Vin becomes a square wave form by Q1, and you
obtain DC output voltage Vout by make it smooth
with coil L and capacitor Cout. Therefore, L and
also Cout assumed that they form the second low
pass filters.
The frequency characteristic of the output LC filter
is expressed with the Bode diagram like Figure 2.
On the other hand, the phase is delayed 180
degrees originally, because the error amplifier is a
negative feedback circuit. Therefore, the phase
delay of the output LC filter and the error amplifier
occur at the same time, and when 360 degrees
delay occur, the output voltage oscillates.
Let's think about an ideal LC filter. The damping
rate of the LC filter is -40dB/dec and the cut-off
frequency becomes , and become Gain
and Phase like the dotted line of Figure 2.
With an ideal filter the output voltage oscillates because it is delayed 180 degrees. But more than some
frequency that is called zero frequency, damping rate of Gain becomes -40dB/dec to -20dB/dec.
Furthemore the Phase returns to delay 90 degrees from delay 180 degrees. This is because the first
Application of switching power supply for smoothing capacitor
2π LC
1
-. Application
Vin
Cin D
L
Vout
Cout
Q1
Error Amp.
OSC
PWM Comparator
Vref
Zi
Zc
Gain 180
160
140
120
100
80
60
40
20
0
-20
-40
-60
-80
-100
-120
-140
-160
-180
90
80
70
60
50
40
30
20
10
0
-10
Gain [dB]
Phase [deg]
-20
-30
-40
-50
-60
-70
-80
-90 1 10 100 1000
Frequency [Hz] 10000 100000 1000000
Phase
ESR
Large
Small
Cut-off frequency
Zero frequency
Fig.2 Frequency characteristic of LC filter
Fig.1 Control block of switching power supply
80
Application
order Phase lead network is formed by the capacitance value and ESR of Cout. Because, after the
zero frequency , the Gain damping rate goes on the Phase of +20 dB, +90 degrees.
However, when the small ESR capacitor is used, it works as a LC filter up to high frequency band,
and the Phase delay to nearly 180 degrees and it becomes easy to oscillate.
30 degrees to 40 degrees or more of Phase margin is thought as a necessity to inhibit the oscillation of
output voltage with a general negative feed-back circuit. The Phase margin is numerical value how much the
minimum value of the Phase is distant from-180 degrees. The smaller the Phase margin gets, the higher
the possibility to oscillate by the characteristic dispersion and temperature change of the component will be.
2. Inhibition method of oscillation
By doing Phase compensation with the feed-back circuit of the error amplifier the oscillation of output
voltage can be inhibited.
There are various kinds in Phase compensation. It is most effective to use the Phase compensation
circuit like the following in the switch power supply of the voltage control mode.
Figure 3 shows that ② and ④
form first order Phase lead
network and ① and ③ form first
order Phase lag network. By
adjusting these values, it dose the
Phase compensation by which
Phase will occur and improve
Phase delay of the whole negative
feed-back circuit by the frequency
characteristic of output LC filter at
the frequency band which the
Phase indicates the lowest. Figure
4 is the example. As the Phase of
the output LC filter of Figure 2 becomes a lowest point at around 10kHz, it has about 30 degrees of
Phase lead around that frequency. Because of this, it can secure the Phase margin of 30 degrees even
if the Phase delay of LC filter becomes 180 degree nearly, the oscillation of output voltage can be
inhibited.
Related in detail, please inquire it to us.
Fig.4 Frequency characteristic of Phase Compensation Network
-. Application
from Vout
Vref
Error Amp.
PWM
Comparator
Zi
Zc
Fig.3 Phase compensation network of Voltage Control Mode
180
160
140
120
100
80
60
40
20
0
-20
-40
-60
-80
-100
-120
-140
-160
-180
90
80
70
60
50
40
30
20
10
0
-10
-20
-30
-40
-50
-60
-70
-80
-90
Gain [dB]
Phase [deg]
1 10 100 1000
Frequency [Hz]
10000 100000 1000000 100000000
Gain
Phase
1
2π Cout ESR
81
Application
Now, concrete examples of design are introduced.
Fig. 5 shows an example of the design of a step-down DC-DC converter using
a ROHM-made power supply control IC.
[Specification]
• Input voltage (Vin) : 5V
• Output voltage (Vout) : 3.3V
• Output current (Iout) : 3.2A
• Output ripple voltage (Vripple) : 20mVp-p
The ESR of the output capacitor necessary to make an output ripple voltage of 20mVp-p can be
obtained as follows:
ESR < Vripple / ((Vin-Vout) / L*Vout / Vin / fosc) = 35.7mΩ
Consequently, the following capacitors have been selected.
1) OS-CON
6SVP100M 1-parallel φ6.3×L6mm ESR = 32mΩ ※ESR is an actual measurement.
2) Aluminum electrolytic capacitor
6V/680uF 3-parallel φ10×L8mm ESR = 128mΩ/p. Total ESR = 43mΩ
Photograph 1 (a) and (b) show measuring circuits using the above capacitors. Following, it will be
verified just how much we can downsize by using the OS-CON compared with aluminum electrolytic
capacitors if the most favorable phase compensating circuit is provided.
Fig.5 A concrete example of design
(a) OS-CON
(b) Aluminum electrolytic capacitor
Photo 1 Evaluated circuit boards
-. Application
+
-
+DV
D
Q1 10uH
Vout
C out
Vin
C in
Error amplifier
Vref
BA9721
PWM comparator
-
Zi
Zc
Triangular wave generator
200kHz
3. Concrete examples of prevention oscillation
82
Application
When the aluminum electrolytic capacitors are used, the frequency characteristics of the output LC filter
are as shown in Fig.6, and there is a sufficient phase margin to such an extent that there is no need
to make phase compensation. Therefore, the phase compensating circuit in Fig.7 is sufficient.
With the phase compensation network in Fig.7 (properly speaking, phase compensation is not made),
the total frequency characteristics are as shown in Fig.8, and it can be said that there is a sufficient
phase margin. The output ripple voltage waveform is shown in Fig.9.
When the aluminum electrolytic capacitors used in
power supply circuits are replaced with the OS-CON
without changing the phase compensation network,
the output voltage oscillates. (Fig.10)
As a reason, we can say that the phase margin is
lost because the phase compensation network is not
changed despite the fact that the frequency
characteristics of the output LC filter change as shown in Fig.6, where the aluminum electrolytic
capacitors are used, to Fig.11, where they are replaced with the low ESR OS-CON.
5.
Examples of design with the OS-CON
Fig.6
Frequency characteristics of the LC filter with the AL-E
Fig8
Total frequency characteristics with the AL-E
Fig.9
Output ripple voltage waveform with the AL-E
Fig.10
Oscillating output voltage waveform
Frequency characteristic
Fig.7
Phase compensating circuit with the AL-E
-. Application
83
Application
CH2 = 5mV
AC 1:1 (2us/div)
CH4 = 100mV
AC 10:1 (20us/div)
22m Vp-p
40
-180
20
Gain [dB]
Phase [deg]
-90
-160-80
-140-70
-120-60
-100-50
-80-40
-60-30
-40-20
-20-10
00
2010
10 100 1000
Frequency [Hz] 10000 100000
Gain
Phase
Frequency [Hz]
Gain [dB]
-60
-50
-40
-30
-20
-10
0
10
20
30
40
50
60
100 1k 10k 100k
Phase [deg]
-180
-150
-120
-90
-60
-30
0
30
60
90
120
150
180
4. Examples of design with aluminum electrolytic capacitors
-
+
Vout
Rin : 22kΩ
Rc : 100kΩ
Cc : 1000pF
Error amplifier
Vref
Rc
Rin
Cc
PWM
To PWM comparator
Zi
Zc
When the LC filter has little phase margin as shown in Fig.11, appropriate phase compensation can be
made by using such a phase compensation network as shown in Fig.12.
This is to cancel the deepened phase lag by forming phase leads at Zi and Zc in Fig.12. Because of
this, the total frequency characteristics are as shown in Fig.13; the phase margin is sufficient; and the
output ripple voltage waveform (Fig.14) is almost the same as is the case with the aluminum electrolytic
capacitors.
Fig.11
Frequency characteristics of the LC filter with the OS-CON
Fig.13
Total frequency characteristics with the OS-CON
Fig.14
Output ripple voltage waveform with the OS-CON
Fig.12
Phase compensating circuit with the OS-CON
-. Application
40
-180
20
Gain [dB]
Phase [deg]
-90
-160-80
-140-70
-120-60
-100-50
-80-40
-60-30
-40-20
-20-10
00
2010
10 100 1000
Frequency [Hz] 10000 100000
Gain
Phase
19m Vp-p
(2us/div)CH2 = 5mV
AC 1:1
-
+
Vout
Rin1 : 3.3kΩ
Cin : 150pF
Rc : 22kΩ
Cc1 : 68pF
Cc2 : 1000pF
Error amplifier
Vref
Rc
Rin1 Cc2
Cc1
PWM
To PWM comparator
Zi
Zc
Rin2 Cin
Frequency [Hz]
Frequency characteristic
Gain [dB]
-60
-50
-40
-30
-20
-10
0
10
20
30
40
50
60
100 1k 10k 100k
Phase [deg]
-180
-150
-120
-90
-60
-30
0
30
60
90
120
150
180
84
Application
-. Application
Influence of output ripples from switching power supply on actual images
As shown on page 70 through to page 75, an OS-CON, aluminum electrolytic capacitor, and a tantalum capacitor
were connected as the output capacitor of a switching power supply to compare the remaining output ripples.
The result showed that the OS-CON provided an excellent filter effect, superior to those of other
capacitors. This section discusses the influence of such remaining ripples on images. You may
understand how digital noise affects analog signals.
As shown above, images were quite normal down to −20°C when the OS-CON was used, while images
started to become white, like misting, around 0°C as a whole, and images hardly appeared at all at
−20°C as shown in Photo 6 when the low impedance aluminum electrolytic capacitor was used.
Influence on images by a digital
camera
An OS-CON with rating of 10V / 47µF X
2p. (SL series, size: φ6.3 X L5.0) and a low
impedance aluminum electrolytic capacitor
with rating of 10V / 330µF (size: φ6.3 X
L11.0) were connected as the smoothing
capacitor on the output side of the DC-DC
converter in a digital camera to compare
their influence on actual images when the
temperature was changed between 25°C,
0°C and -20°C . AI-E is usedOS-CON is used
☆OS-CON
10V / 47µF X 2p. (SL series ; size : φ6.3 X L5.0)
☆
Low impedance Aluminum electrolytic capacitor
10V / 330µF X 2p. (size : φ6.3 X L11.0)
Photo l
at 25°C
Photo 3
at 0°C
Photo 5
at -20°C
Photo 2
at 25°C
Photo 4
at 0°C
Photo 6
at -20°C
Parts mounting circuit
85
Application
Information
andwish
=. Information and wish
86
①Since the following models of the SC, SA, SL, SH and SVP series have been integrated into models
with a higher voltage rating, please consider these higher voltage rating models for new adoption or
model changes.
②Production of the SG and SV series has been discontinued. Therefore, customers using these series
at present are kindly requested to substitute the SP series for the SG series, and the SVP series for
the SV series.
③Production of the SM and SN series is scheduled to be discontinued upon receipt of customer
approval. Please use the SVP series for new board designs.
A
B
C
D
C
E
B'
C'
A
C
A5
B6
C6
E7
F8
16SC1M
16SC1R5M
6SC10M
16SC10M
6SC22M
6SC47M
10SA33M
10SA100M
6SL10M
6SL22M
6SL33M
6SL47M
16SH1M
16SH1R5M
16SH10M
6SVP15M
4SVP22M
10SVP22M
6SVP33M
6SVP56M
4SVP82M
10SVP82M
6SVP120M
6SVP150M
4SVP220M
4SVP470M
25SC1M
25SC1R5M
10SC10M
25SC10M
10SC22M
10SC47M
16SA33M
16SA100M
10SL10M
10SL22M
10SL33M
10SL47M
25SH1M
25SH1R5M
25SH10M
10SVP15M
6SVP22M
16SVP22M
10SVP33M
10SVP56M
6SVP82M
16SVP82M
10SVP120M
10SVP150MX
6SVP220MX
6SVP470MX
SC
SA
SL
SH
SVP
Applicable model Alternative model
Size CodeSeries
mm
FAX
Company
Dept.
Name
TEL
E-mail
Application
Equipment
Height limit
Item Symbol Value Unit
Switching Frequency
Input Voltage
Output Voltage
Output Current
Ripple Voltage
Ambient Temperature
Primary Inductance
Inductance
Winding ratio
Current Change
Voltage Drop
Control IC
Mount type
Radial SMD
Indispensable item
◆Please enclose the use circuit in a circle.
Power Supply / Filter / By-pass Capacitor / Coupling Circuits / Others ( )
PC / PC Peripheral Unit / Audio / Communication / Automobile / Other ( )
Iout
Vout
①BUCK
Vin > Vout ④FORWARD
⑤FLYBACK
③BUCK-BOOST
0 > Vout
fosc
Vin
Vout
Iout
∆Vripple
Ta
L1
L
n1 : n2 :
kHz
V
V
A
mVp-p
°C
µH
µH
∆I
∆Vdrop A
mV
②BOOST
Vin < Vout
Option
HearingSheet
. Capacitors Selection Sheet
I
Vdrop ∆
∆
∆
Vripple
0V
0A
Iout
Vin fosc Vout
++
L
Iout
Vout
Vin fosc
++
L
Iout
Vout
Vin fosc
++
L
Vin
n1
L1 n2
fosc
IoutL
Vout
++
Vin
n1
L1 n2
fosc
Iout
Vout
++
87
Memo
(Front)
(Back)
Adoptedmodel×Quantity
20SVP22M×2
6SVP82M×4
TM
Application to OS-CON
Portable Navigation System
OS-CON is used for the DC-DC converter part.
851
SANYO Electric Co., Ltd.
Electronic Device Company
Sales division(Japan)
1-1 SANYO-cho, Daito, Osaka, 574-8534
Phone:(072)870-6375/6377
FAX: (072)870-6456
SANYO Component Europe GmbH
Stahlgruberring 81829 Munich Germany
Phone:＋49-(0)89-460095-284
FAX:＋49-(0)89-460095-275
Taiwan Branch(Taiwan)
4 Fl., No.146, Sungjiang Rd., Taipei, Taiwan104, R.O.C.
Phone:886-2-2536-1855
FAX: 886-2-2536-6168
Korea office
7th Floor, Han-Wha Building 110, Sogong-Dong, Chung-ku, Seoul, Korea
Phone:02-777-5860
FAX: 02-777-6053
SANYO Electronic Device (U.S.A.) Corporation
San Diego Headquarter
2055 SANYO Ave., San Diego, CA. 92154, U.S.A.
Phone:1-619-661-4134
FAX: 1-619-661-1055
San Jose sales office
1230 Oakmead Parkway, Ste. #314, Sunnyvale, CA 94085, U.S.A.
Phone:1-408-749-9714
FAX: 1-408-749-0212
Boston sales office
100 Cummings Center, Ste. #218C, Beverly, MA 01915, U.S.A.
Phone:1-978-922-6573
FAX: 1-978-922-7428
Dallas sales office
2007 North Collins Blvd., Ste. 407, Richardson, TX 75080, U.S.A.
Phone:1-972-238-7450
FAX: 1-972-238-7321
Forrest City sales Representative
P.O.Box 2604-Forrest City, AR 72336, U.S.A.
Phone:1-870-494-3793
FAX: 1-870-633-6720
SANYO Electronic Components (Singapore) Pte., Ltd.
70 Anson Road #19-01 To 08, Apex Tower Singapore/079905/Singapore
Phone:65-6223-0225
FAX: 65-6223-0986
SANYO Electronic Components (HK) Limited
Suite 3601-06, 36/F, Tower 6, The Gateway, Harbour City, 9 Canton Road, T.S.T., Kowloon, Hong Kong.
Phone:852-2301-0529
FAX: 852-2301-2255
●Modifyingthesubjectsandspecificationsinthiscataloguewithoutanynotice.
http://www.secc.co.jp
http://www.sanyodevice.com
