Product Sheet

V ishay I n t e rt e ch n olo g y, I n c .
AND TEC
I
INNOVAT
O L OGY
VJ OMD Series
N
HN
capacitors
O
19
62-2012
Capacitors - Excellent Reliability
Open-Mode Design
MLCC Capacitors
Key Benefits
• Reduces the risk of shorts or low insulation resistance (IR) due to board-flex cracks
• Available with polymer terminations for intensive board flex requirements
• Features higher voltage breakdowns than standard designs with voltage ranges from
16 VDC to 3000 VDC
• Provides high-frequency filtering for switching power supplies
• Available with 100 % voltage condition
APPLICATIONS
• Buck and boost DC/DC converters
• Voltage multipliers for flyback converters
• High-frequency filtering in power supplies for medical, computer, motor control, and
telecommunications systems
Resources
• Datasheet: VJ OMD Series - http://www.vishay.com/doc?45198
• For technical questions contact [email protected]
• Material categorization: For definitions of compliance please see
http://www.vishay.com/doc?99912
One of the World’s Largest Manufacturers of
Discrete Semiconductors and Passive Components
PRODUCT SHEET
1/2
VMN-PT0049-1205
This document is subject to change without notice. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT ARE SUBJECT TO
SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000
FEATURES
VJ OMD Series
www.vishay.com
I
INNOVAT
VJ OMD Series
N
AND TEC
O L OGY
capacitors
O
HN
• Open Mode Design (OMD) reduces risk of
shorts or leakage in board flex applications
• Excellent reliability and thermal shock
performance
• Efficient low-power consumption, ripple
current capable to 1.2 ARMS at 100 kHz
• High voltage breakdown compared to
standard design
• 100 % voltage conditioning available up to 630 VDC rating
(process code “5H”)
Contact [email protected] for higher voltages.
• Polymer termination available for intensive board flex
requirements
• Wet build process
• Reliable Noble Metal Electrode (NME) system
• Compliant to RoHS Directive 2011/65/EU
• Halogen-free according to IEC 61249-2-21 definition
19
62-2012
APPLICATIONS
•
•
•
•
•
•
Vishay Vitramon
Demanding boardflex applications
Input filter capacitors
Output filter capacitors
Snubber capacitors reduce MOSFET voltage spikes
High frequency filtering for switching power supplies
For lighting and other AC applications please contact:
[email protected]
Surface Mount Multilayer Ceramic Chip
Capacitor Solutions for Boardflex Sensitive Applications
Surface Mount Multilayer Ceramic Chip Capacitor Solutions for
Boardflex Sensitive Applications
FEATURES
• Open Mode Design (OMD) reduces risk of
ELECTRICAL
SPECIFICATIONS
shorts
or leakage in board flex applications
• Excellent
reliability
and
thermal
shock
X7R
• Efficient low-power consumption, ripple
current capable to 1.2 ARMS at 100 kHz
High voltage breakdown compared to
GENERAL •SPECIFICATION
standard design
Note
• 100 % voltage conditioning available up to 630 VDC rating
(process code
Electrical characteristics
at +“5H”)
25 °C unless otherwise specified
Contact [email protected] for higher voltages.
Polymer termination
available
for intensive
board flex
Operating •Temperature:
- 55 °C
to + 125
°C
requirements
• Wet build process
Capacitance
Range:
10
pF
to
47
nF
• Reliable Noble Metal Electrode (NME) system
• Compliant to RoHS Directive 2011/65/EU
: 50 VDC according
to 3000 V
Voltage Range
• Halogen-free
toDC
IEC 61249-2-21 definition
Voltage Range: 16 VDC to 3000 VDC
Temperature
Coefficient of Capacitance (TCC):
APPLICATIONS
Demanding
applications
0 ppm/°C ±• 30
ppm/°Cboardflex
from - 55
°C to + 125 °C
Temperature Coefficient of Capacitance (TCC):
± 15 % from - 55 °C to + 125 °C, with 0 VDC applied
GENERAL SPECIFICATION
Note
Electrical characteristics at + 25 °C unless otherwise specified
Operating Temperature: - 55 °C to + 125 °C
Capacitance Range: 100 pF to 1.8 μF
• Input filter capacitors
Output filter
capacitors
Dissipation• Factor
(DF):
• Snubber
capacitors
reduce MOSFET voltage spikes
0.1 % maximum
at 1.0
V
and
• High frequencyRMS
filtering for switching power supplies
1 MHz for values

1000
pFother AC applications please contact:
• For lighting and
[email protected]
0.1 % maximum
at 1.0 VRMS and
ELECTRICAL SPECIFICATIONS
C0G (NP0)
GENERAL SPECIFICATION
Dissipation Factor (DF):
< 50 V ratings 3.5 % maximum at 1.0 VRMS and 1 kHz
50 V ratings 2.5 % maximum at 1.0 VRMS and 1 kHz
Insulating Resistance:
At + 25 °C 100 000 M min. or 1000 F whichever is less
At + 125 °C 10 000 M min. or 100 F whichever is less
1 kHz for values > 1000 pF
Insulating Resistance:
X7R
At + 25 °C 100 000 M min. or 1000 F whichever is less
At + 125 °C 10
000 M
min. or 100 F whichever is less
GENERAL
SPECIFICATION
Note
Aging
Electrical characteristics at + 25 °C unless otherwise specified
Aging Rate: 1 % maximum per decade
Note
Dielectric Strength Test:
Performed per method 103 of EIA 198-2-E
Applied test voltages
 250 VDC-rated:
250 % of rated voltage
500 VDC-rated:
min. 150 % of rated voltage
150 % of rated voltage
630 VDC/1000 VDC-rated:
1500 VDC to 3000 VDC-rated:
120 % of rated voltage
0 % maximum
peratdecad
Rate: Electrical
characteristics
+ 25 °C eunless otherwise specified
Operating Temperature: - 55 °C to + 125 °C
OperatingTest:
Temperature: - 55 °C to + 125 °C
Dielectric Strength
Performed per
method 103
of : EIA
100 198-2-E
pF to 1.8 μF
Capacitance
Range
Applied test voltages
Voltage Range: 16 VDC to 3000 VDC
Voltage Range: 50 VDC to 3000 VDC
 200 VDC-rated:
250 % of rated voltage
Temperature Coefficient of Capacitance (TCC): 500 VDC-rated:
Temperature Coefficient200
of Capacitance
% of rated (TCC):
voltage
0 ppm/°C ± 30 ppm/°C from - 55 °C to + 125 °C 630 V /1000
± 15
%-rated:
from - 55 °C to + 150
125 °C,
0 VDC voltage
applied
VDC
% with
of rated
DC
1500 VDC to Dissipation
3000 VDC-rated:
Dissipation Factor (DF):
Factor (DF):120 % of rated voltage
Capacitance Range: 10 pF to 47 nF
0.1 % maximum at 1.0 VRMS and
1 MHz for values  1000 pF
0.1 % maximum at 1.0 VRMS and
1 kHz for values > 1000 pF
< 50 V ratings 3.5 % maximum at 1.0 VRMS and 1 kHz
50 V ratings 2.5 % maximum at 1.0 VRMS and 1 kHz
Revision: 17-Feb-12
ORDERING INFORMATION
Document Number: 45198
1
Insulating Resistance:
For technical
questions,
At + 25 °C 100 000 M min. or 1000
F whichever
is less contact: [email protected]
Insulating Resistance:
At + 125 °C
000 M
or 100 F WITHOUT
whichever
less
VJ1210
Y
J min.
X isNOTICE.
A
A
T THIS DOCUMENT
# (2)
THIS474
DOCUMENT
IS 10
SUBJECT
TO CHANGE
THE PRODUCTS
DESCRIBED
HEREIN AND
At + 25 °C 100 000 M min. or 1000 F whichever is less
ARE SUBJECT TO SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000
Aging Rate
: 1 % maximum per decade
At + 125 °C 10 000 CASE
M min. or DIELECTRIC
100 F whichever is less
CAPACITANCE
CAPACITANCE
TERMINATION
DC
MARKING PACKAGING PROCESS
CODE per decade
NOMINAL
TOLERANCE
Dielectric Strength
Test:
Aging Rate: 0 % maximum
CODEPerformed per method 103 of EIA 198-2-E
Dielectric Strength Test:
Applied test voltages
Performed per method 103 of EIA 198-2-E
 250 VDC-rated:
250 % of rated voltage
Applied test voltages
500 VDC-rated:
150 % of rated voltage
0805
A=
Expressed630
inV /1000 FV = -rated:
± 1 % min.150
X
= Ni barrier
 200 VDC-rated:
250
% C0G
of rated voltage
% of rated voltage
DC
DC
500 VDC-rated:
200
%
of
rated
voltage
1206
(NP0)
picofarads 1500
(pF).VDC to 3000
G =V±
2%
100
tin plated
120
%%
of rated
voltage
DC-rated:
150 % of rated voltage
630 VDC/1000 VDC-rated:
1210
Y
=
X7R
The
first
two
J
=
±
5
%
matte
finish
1500 VDC to 3000 VDC-rated:
120 % of rated voltage
1808
digits are
K = ± 10 %
F, E = AgPd (3)
B = Polymer
1812
significant,
the
M = ± 20 %
Document
Number: 45198
1
For technical questions,
contact:
100 % tin plated
1825
third
is [email protected]
THIS DOCUMENT IS SUBJECT TO CHANGE WITHOUT NOTICE. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT
matte finish
2220
multiplier.
“R”AT www.vishay.com/doc?91000
C0G (NP0):
ARE SUBJECT TO SPECIFIC DISCLAIMERS,
SETAn
FORTH
N=
2225
indicates a
F, G, J, K
Non-magnetic
decimal point.
X7R:
Examples
J, K, M
474 = 470 000 pF
Notes
(1) DC voltage rating should not be exceeded in application.
Other application factors may affect the MLCC performance.
Consult for questions:
[email protected]
www.vishay.com
(2) Process code with 2 digits has to be added.
www.vishay.com
(3) Termination code E” is for conductive epoxy assembly.
Revision: 17-Feb-12
VOLTAGE
RATING (1)
J = 16 V
X = 25 V
A = 50 V
B = 100 V
C = 200 V
P = 250 V
E = 500 V
L = 630 V
G = 1000 V
R = 1500 V
F = 2000 V
H = 3000 V
CODE
A=
Unmarked
C = 7" reel/paper tape
T = 7" reel/plastic tape
P = 11 1/4"/13" reel/
paper tape
R = 11 1/4"/13" reel/
plastic tape
O = 7" reel/flamed
paper tape
Note
“I” and “O” are used for
“F”, “E” termination
size 0805
4X =
OMD cap
5H =
OMD
cap 100 %
voltage
conditioning
VJ OMD Series
VJVishay
OMDVitramon
Series
Vishay Vitramon
BOARDFLEX SENSITIVE APPLICATIONS - SOLUTION:
BOARDFLEX
SENSITIVE
APPLICATIONS
- SOLUTION:
A predominant failure
mode in multilayer
ceramic chip
capacitors is cracking caused by board flexure. Cracks can then create
Revision 17-Feb-12
Capacitors - Excellent Reliability
C0G (NP0)performance
path for current
to pass
one electrode
through
the dielectric
to an opposing
or from Cracks
the terminations
at one
Aa predominant
failure
modefrom
in multilayer
ceramic
chip capacitors
is cracking
caused electrode
by board flexure.
can then create
of for
thecurrent
MLCC to
through
the dielectric
to an opposing
electrode.
This
may
subsequently
result
capacitance
loss, leakage
aend
path
pass from
one electrode
through the
dielectric
to an
opposing
electrode
orinfrom
the terminations
at onelow of
Insulation
Resistance
(IR)dielectric
- and/or to
more
seriously,electrode.
high current
A short circuit
condition
in the surface
mounted
end
the MLCC
through the
an opposing
Thisshorts.
may subsequently
result
in capacitance
loss, leakage
capacitors
canResistance
cause further
downstream
Capacitors
(VJ OMD
- Cap.
low
Insulation
(IR) failures
- and/orofmore
seriously,components.
high currentVishay’s
shorts. AOpen
shortMode
circuitDesign
condition
in the surface
mounted
series)
reduce
the
risk
of
these
destructive
conditions
through
MLCC
designs
that
prevent
board
flexure
cracks
reaching
the
capacitors can cause further failures of downstream components. Vishay’s Open Mode Design Capacitors (VJ OMD - Cap.
opposing
electrode.
series)
reduce
the risk of these destructive conditions through MLCC designs that prevent board flexure cracks reaching the
opposing
VJ OMD -electrode.
Cap. MLCCs reduce the risk of early field failures associated with board flex cracks. However, it is important to note
that
even
in
the
open mode
designs
presence
of flexure
related cracks
can cause
capacitance
loss
leading
to localized
VJ OMD - Cap. MLCCs
reduce
the riskthe
of early
field failures
associated
with board
flex cracks.
However,
it is
important
to note
stresses
the open
parts.mode
eventually,
depending
on the
environment,
including
such factorsloss
andleading
high voltage
pulse
that
even on
in the
designs
the presence
of application
flexure related
cracks can
cause capacitance
to localized
frequency
and
thermal
cycling
this
may
lead
to
internal
breakdown
of
the
component.
stresses on the parts. eventually, depending on the application environment, including such factors and high voltage pulse
frequency and thermal cycling this may lead to internal breakdown of the component.
POLYMER TERMINATION
POLYMER
TERMINATION
Polymer termination
provides additional protection against board flexure damage by absorbing greater mechanical and thermal
stresses.termination
Components
can beadditional
packaged,
transported,
stored
and
handled
the same
standardgreater
terminated
product.
Wave
and
Polymer
provides
protection
against
board
flexure
damage
by absorbing
mechanical
and
thermal
reflow soldering
of MLCC
not requiretransported,
modificationstored
to equipment
and/or
process.
Polymer terminated
terminationproduct.
greatly reduces
the
stresses.
Components
candoes
be packaged,
and handled
the
same standard
Wave and
risk of soldering
mechanical
cracking
however
it does
not completely
eliminate.and/or process. Polymer termination greatly reduces the
reflow
of MLCC
does
not require
modification
to equipment
risk of mechanical cracking however it does not completely eliminate.
STANDARD TERMINATION
STANDARD
TERMINATION
Exposed Electrodes
= Electrical short
PRODUCT SHEETExposed Electrodes = Electrical short
2/2
OMD CAP PLUS POLYMER TERMINATION
OMD
CAPElectrodes
PLUS POLYMER
No Exposed
= No ElectricalTERMINATION
short
No Exposed Electrodes = No Electrical short
VMN-PT0049-1205
This document is subject to change without notice. THE PRODUCTS DESCRIBED HEREIN AND THIS DOCUMENT ARE SUBJECT TO
SPECIFIC DISCLAIMERS, SET FORTH AT www.vishay.com/doc?91000