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Dual Output BCP Models
www.murata-ps.com
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
OBSOLETE PRODUCT
Last time buy: 04 January 2013
FEATURES
PRODUCT OVERVIEW
■
Independent
■
Up
3.3V and 2.5V outputs
to 15 Amps per output
■
Each
output fully regulated
■
No
minimum load requirements
■
50
Watts total output power
■
Standard
"half-brick" package
■
UL1950
and IEC/EN60950-1 safety
approvals (BASIC insulation)
■
Fully isolated, 1500Vdc guaranteed
■
18-36V
■
or 36-75V input ranges
mark available (75V-input models)
■
Input
Murata Power Solutions' BCP "half-brick" series
has expanded to include dual-output, 3.3V and
2.5V DC/DC converters. The BCP-3.3/15-2.5/15D24 (18-36V input) and BCP-3.3/15-2.5/15-D48
(36-75V input) are fully isolated DC/DC converters housed in standard "half-brick" packages
(2.3" x 2.4" x 0.5"). These BCP’s can support
any combination of 3.3V and 2.5V loading up to
a combined total of 15 Amps. Both outputs are
fully isolated (1500Vdc) and independently line
(±0.2%) and load (±0.5%) regulated.
Both BCP models feature input pi filters, input
undervoltage and overvoltage shutdown, input
reverse-polarity protection, output overvoltage
protection, current limiting, and thermal shutdown. Each has an on/off control function (positive
and negative logic versions available), and both
output voltages can be trimmed independently.
BCP Model DC/DCs deliver low noise (50mVp-p),
efficiency of 84% and are fully specified for –40 to
+100°C operation. Utilization of metal baseplate
technology with threaded inserts permits easy
heat-sink attachment and/or pcb mounting. These
devices meet UL1950 and IEC/EN60950-1 safety
standards, including BASIC insulation requirements. CB reports are available on request. "D48"
models are CE marked (meet the requirements
of LVD).
under and overvoltage shutdown
■
Continuous
■
Thermal
short-circuit protection
shutdown
+3.3V OUTPUT
(7)
+INPUT
(4)
SWITCH
CONTROL
3.3V RETURN
(6)
+2.5V OUTPUT
(10)
–INPUT
(1)
2.5V RETURN
(9)
ON/OFF
CONTROL
(3)
REGULATOR
PWM
CONTROLLER
UV & OV
COMPARATORS
OPTO
ISOLATION
THERMAL
SHUTDOWN
REFERENCE
& ERROR AMP
REFERENCE
& ERROR AMP
2.5V TRIM
(8)
3.3V TRIM
(5)
Typical typology is shown.
For full details go to
www.murata-ps.com/rohs
Figure 1. Simplified Schematic
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MDC_BCP Models.B06 Page 1 of 7
Dual Output BCP Models
Performance Specifications and Ordering Guide
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
➀
ORDERING GUIDE
Output
Models ➆
VOUT
(Volts)
IOUT
(Amps)
3.3
2.5
3.3
2.5
15
15
15
15
BCP-3.3/15-2.5/15-D24
BCP-3.3/15-2.5/15-D48
R/N (mVp-p) ➁
Input
Regulation (Max.) ➂
Typ.
Max.
Line
Load
50
50
50
50
100
100
100
100
±0.2%
±0.2%
±0.2%
±0.2%
±0.5%
±0.5%
±0.5%
±0.5%
➀ Typical at TA = +25°C under nominal line voltage and balanced "full-load" (3.3V @7.5A, 2.5V @ 7.5A)
conditions unless otherwise noted.
➁ Ripple/Noise (R/N) measured over a 20MHz bandwidth. All models are specified with 22µF,
low-ESR, input capacitor and 10µF tantalum in parallel with 1µF ceramic output capacitors.
➂ No load to 100% load, other output at no-load.
Efficiency ➅
VIN Nom.
(Volts)
Range
(Volts)
IIN ➃
(mA/A)
Min.
Typ.
Package
(Case, Pinout)
24
18-36
0.2/2.52
82%
84%
C30, P90
48
36-75
0.1/1.26
82%
84%
C30, P90
➃
➄
➅
➆
Nominal line voltage, no-load/3.3V at full-load condition.
Current from either output at maximum value, or both outputs to a combined total of 15 A.
3.3V at full-load condition.
These are not complete model numbers. Please refer to the Part Number Structure when ordering.
Part Number Structure
Optional Functions
BCP 50 Watt DC/DC's are designed with an On/Off Control function, with
RoHS Hazardous
Dual Output/
either positive polarity (no suffix) or negative polarity ("N"suffix), in the
Substance Compliant
Standard Half-Brick Package
pin 3 position.
See Optional Functions
V1 Nominal Output Voltage: 3.3 Volts
Blank On/Off Control function (positive polarity) on pin 3
Input Voltage Range:
D24 = 18-36 Volts (24V nominal)
N
On/Off Control function (negative polarity) on pin 3
I1 Maximum Output Current: 15A
D48 = 36-75 Volts (48V nominal)
L1
Pin length: 0.110 inches (2.79mm) ±0.010. Quantity order only.
I2 Maximum Output Current: 15A
L2
Pin length: 0.145 inches (3.68mm) ±0.010. Quantity order only.
V2 Nominal Output Voltage: 2.5 Volts
-C
RoHS-6 compliance
Note: Not all model number combinations are available. Contact MPS.
BCP - 3.3 - 15 - 2.5 / 15 - D48 N LX - C
Mechanical Specifications
2.30
(58.42)
0.50
(12.70)
METAL BASEPLATE
Case C30
PLASTIC SHELL
0.040 ±0.002 DIA.
(1.016 ±0.051)
0.20 MIN
(5.08)
0.20
(5.08)
1.90
(48.26)
Dimensions are in inches (mm) shown for ref. only.
10
1
Third Angle Projection
9
2
2.00
1.40
(50.80) (35.56)
1.00
(25.40)
8
7
3
0.40
(10.16)
6
4
0.30
(7.62)
(4) THREADED INSERTS
#M3 THD THRU
5
0.300
(7.62)
0.600
(15.24)
1.600 2.40
1.300 (40.64) (60.96)
1.000 (33.02)
(25.40)
0.200
(5.08)
BOTTOM VIEW
Tolerances (unless otherwise specified):
.XX ± 0.02 (0.5)
.XXX ± 0.010 (0.25)
Angles ± 2˚
Components are shown for reference only.
0.20
(5.08)
Dimensions are in inches (MM)
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Dimensions in inches(mm)
MDC_BCP Models.B06 Page 2 of 7
Dual Output BCP Models
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
Mechanical Specifications (continued)
Optional Heat Sink (Part Number HS-CPLP2) *
3.50
(88.90)
2.000
(50.80)
0.75
(19.05)
0.20
(5.08)
1.900
(48.26)
I/O Connections
Pin Function P39
Pin
Function P39
1
–Input
6
3.3V Return
2 Case (Baseplate)
7
+3.3V Output
3
On/Off Control
8
2.5V Trim
4
+Input
9
2.5V Return
5
3.3V Trim
10
+2.5V Output
2.30
(58.42)
* Note: When mounting the heat sink to the BCP converter:
1. Maximum applied torque is 6 in-lbs.
2. Minimum thread engagement of the mounting screws is 12mm deep.
Dimensions are in inches (mm) shown for ref. only.
0.140 THRU AND COUNTERSINK
90° TO 0.26 (4 PLACES)
Third Angle Projection
MATERIAL: BLACK ANODIZED ALUMINU
0.47
(11.94)
0.16
(4.06)
Tolerances (unless otherwise specified):
.XX ± 0.02 (0.5)
.XXX ± 0.010 (0.25)
Angles ± 2˚
2.48
(62.99)
Components are shown for reference only.
Optional Heat Sink (Part Number HS-CP) *
2.30
(58.42)
0.50 (12.70) TYP.
051 (12.95) MAX.
1.90
(48.26)
0.20
(5.08)
0.10
(2.54)
2.40
2.00
(50.80) (60.96)
Top View
0.147 DIA. (3.734)
(4 PLACES)
0.20
(5.08)
MATERIAL: BLACK ANODIZED ALUMINUM
4 MOUNTING SCREWS AND 0.009 (0.229)
THICK THERMAL PAD INCLUDED
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MDC_BCP Models.B06 Page 3 of 7
Dual Output BCP Models
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
Performance/Functional Specifications
Typical @ TA = +25°C under nominal line voltage, balanced "full-load" conditions, unless noted. ➀
Dynamic Characteristics
Input
18-36 Volts (24V nominal)
36-75 Volts (48V nominal)
Dynamic Load Response:
3.3V (50-100% load step to 2% VOUT)
2.5V (50-100% load step to 2% VOUT)
300µsec maximum
300µsec maximum
Overvoltage Shutdown:
D24 Models
D48 Models
40-43 Volts (41.5V typical)
77-80 Volts (78.5V typical)
Start-Up Time:
VIN to VOUT
On/Off to VOUT
50 msec maximum
25 msec maximum
Start-Up Threshold:
D24 Models
D48 Models
Switching Frequency
300kHz (±50kHz)
16.5-18 Volts (17.5V typical)
33.5-36 Volts (34.5V typical)
Input Voltage Range:
D24 Models
D48 Models
Undervoltage Shutdown:
D24 Models
D48 Models
Input Current:
Normal Operating Conditions
D24 Models
D48 Models
Standby Mode:
Off, OV, UV, Thermal Shutdown
15-17.5 Volts (16.5V typical)
30.5-33.5 Volts (32V typical)
Bellcore, ground fixed, controlled
TBD hours (case @ TBD °C)
TBD hours (case @ TBD °C)
See Ordering Guide
3.06 Amps maximum
1.53 Amps maximum
Operating Temperature (Ambient):
θ Case to Ambient, No heatsink
Without Derating
With Derating
TBD °C/Watt
–40 to +32°C (without heat sink)
To +100°C (See Derating Curves)
Case Temperature:
Maximum Allowable
For Thermal Shutdown ➁
+100°C
+100°C minimum, +110°C maximum
10mA typical
Input Reflected Ripple Current:
Source Impedance <0.1Ω
22µF Low-ESR Capacitor
88mArms, 250mAp-p maximum
Input Filter Type
Pi (0.47µF-4.7µH-3.3µF)
Reverse-Polarity Protection:
D24 Models
D48 Models
On/Off Control: (Pin 3) ➂ ➄
D24 & D48 Models
D24N & D48N Models
Storage Temperature
1 minute duration, 6A maximum
1 minute duration, 3A maximum
On = open or 13V - +VIN, IIN = 1mA max.
Off = 0-0.8V, IIN = 2mA max.
On = 0-0.8V, IIN = 1mA max.
Off = open or 2.5 - +VIN, IIN = 50µA max.
Output
VOUT Accuracy
3.3V Output
2.5V Output
Environmental
MTBF
D24 Models
D48 Models
±2% maximum
±2% maximum
Minimum Loading per Specification
No load
Ripple/Noise (20MHz BW) ➃
See Ordering Guide
Line/Load Regulation
See Ordering Guide
Efficiency
See Ordering Guide and Efficiency Curves
Trim Range ➁
±5% independent
Isolation Voltage:
Input-to-Baseplate
Input-to-Baseplate
Output-to-Case
1500Vdc minimum
1000Vdc minimum
1000Vdc minimum
Isolation Capacitance
560pF
Isolation resistance
100MΩ
Current Limit Inception:
3.3V @ 98% VOUT (2.5V @ no-load)
2.5V @ 98% VOUT (3.3V @ no-load)
17-22 Amps
17-22 Amps
Short Circuit Current
Constant current 25A, indefinite
Temperature Coefficient
±0.02% per °C
Overvoltage Protection:
3.3V Output
2.5V Output
Comparator
4.0 Volts
3.25 Volts
–40 to +120°C
Physical
Dimensions
2.3" x 2.4" x 0.5" (58.4 x 61 x 12.7mm)
Case (Baseplate) Connection ➁
Pin 2
Case/Pin Material
Diallyl phthalate, UL94V-0 rated, aluminum
baseplate; plated copper alloy pins
Weight
4.2 ounces (118 grams)
Primary to Secondary Insulation Level Basic
➀ Balanced, full-load = 3.3 @ 7.5A and 2.5V @ 7.5A. Models are specified with an external 22µF,
low-ESR, input capacitor and 10µF tantalum in parallel with 1µF ceramic output capacitors.
➁ See Technical Notes for details.
➂ Devices may be ordered with negative logic (pin 3 open = off). See Part Number Structure
and Technical Notes for additional information.
➃ Output noise may be further reduced with the installation of additional external output
capacitors. See Technical Notes.
➄ These signals must be referenced to the input return pin (–VIN).
➅ Demonstrated MTBF available on request.
Absolute Maximum Ratings
Input Voltage:
Continuous:
D24 Models
D48 Models
Transient (100msec): D24 Models
D48 Models
43 Volts
87 Volts
50 Volts
100 Volts
On/Off Control
+15 Volts
Input Reverse-Polarity Protection
Input Current must be limited. 1 minute
duration. Fusing recommended.
6 Amps
3 Amps
D24 Models
D48 Models
Output Overvoltage Protection ➁
3.3V Outputs
2.5V Outputs
4.0 Volts, comparator
3.25 Volts, comparator
Output Current ➁
Current limited. Devices can withstand
an indefinite output short circuit.
Storage Temperature
–40 to +120°C
Lead Temperature
See Soldering Guidelines
These are stress ratings. Exposure of devices to greater than any of these conditions may
adversely affect long-term reliability. Proper operation under conditions other than those
listed in the Performance/Functional Specifications Table is not implied or recommended.
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MDC_BCP Models.B06 Page 4 of 7
Dual Output BCP Models
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
TECHNICAL NOTES
3.3V & 2.5V Outputs/Returns
The BCP Series outputs (pins 7 & 10) and returns (pins 6 & 9) are isolated
from the +VIN and –VIN inputs (pins 4 & 1) via a transformer and opto-coupled
transistors.
The 3.3V Return (pin 6) and 2.5V Return (pin 9) are connected internal to the
DC/DC converter. Though the returns are common within the DC/DC converter,
the regulating control loop for each output is sensed directly at its respective
output and return pins.To maintain optimum regulation when a ground plane is
not used, it is critical that PC board layouts return each output to its corresponding return pin.
Filtering and Noise Reduction
All BCP DC/DC Converters achieve their rated ripple and noise specifications
using the external input and output capacitors specified in the Performance/
Functional Specifications table. In critical applications, input/output noise may
be further reduced by installing additional external I/O caps. Input capacitors
should be selected for bulk capacitance, low ESR and high rms-ripple-current
ratings. Input capacitors serve as energy-storage devices to minimize variations in line voltage caused by transient IR drops in PCB conductors from
backplane to the DC/DC. Output capacitors should be selected for low ESR and
appropriate frequency response. All caps should have appropriate voltage ratings and be mounted as close to the converters as possible.
The most effective combination of external I/O capacitors will be a function
of your particular load and layout conditions.
Input Fusing
Certain applications and/or safety agencies may require the installation of
fuses at the inputs of power conversion components. Fuses should also be
used if the possibility of sustained, non-current-limited, input-voltage polarity
reversals exists. For MPS BCP DC/DC Converters, you should use slow-blow
type fuses with values no greater than the following.
VIN Range
"D24" Models
"D48" Models
Fuse Value
6 Amps
3 Amps
Fuses should be installed in the +Input line.
Input Overvoltage/Undervoltage Shutdown and Start-Up Threshold
Under normal start-up conditions, devices will not begin to regulate until the
ramping-up input voltage exceeds the Start-Up Threshold Voltage (35V for
"D48" models). Once operating, devices will not turn off until the input voltage
drops below the Undervoltage Shutdown limit (32V for "D48" models). Subsequent re-start will not occur until the input is brought back up to the Start-Up
Threshold. This built-in hysteresis prevents any unstable on/off situations from
occurring at a single voltage.
Input voltages exceeding the input overvoltage shutdown specification
listed in the Performance/Functional Specifications will cause the device to
shutdown. A built-in hysteresis (2V typical for "D24" models, 4V typical for
"D48" models) will not allow the converter to restart until the input voltage is
sufficiently reduced.
Start-Up Time
The VIN to VOUT start-up time is the interval between the time at which a ramping input voltage crosses the turn-on threshold point and the fully-loaded
output voltage enters and remains within its specified accuracy band. Actual
measured times will vary with input source impedance, external input capacitance, and the slew rate and final value of the input voltage as it appears to the
converter.
The On/Off to VOUT start-up time assumes the converter has its nominal
input voltage applied but is turned off via the On/Off Control. The specification
defines the interval between the time at which the converter is turned on and
the fully loaded output voltage enters and remains within its specified accuracy
band.
On/Off Control (Standard feature)
The On/Off Control (pin 3) may be used for remote on/off operation. As shown
in Figure 1A, the control pin is referenced to the –Input (pin 1). The standard
BCP converter (no suffix) is designed so that it is enabled when the control pin
is left open and disabled when the control pin is pulled low (to less than +0.8V
relative to –Input).
Dynamic control of the on/off function is best accomplished with a mechanical relay or an open-collector/open-drain drive circuit (optically isolated if
appropriate). The drive circuit should be able to sink approximately 1mA for
logic low.
The on/off control function is designed such that the converter can be
disabled (pin 3 pulled low for no-suffix models) while input power is ramping
up and then "released" once the input has stabilized.
For BCP converters configured with a negative-polarity option ("N" suffix
added to part number), operation is opposite to that described above. The
converter is disabled when the On/Off Control pin is left open and enabled
when pulled low.
+Vcc
3
+13V
ON/OFF
CONTROL
+Vcc
3
ON/OFF
CONTROL
+3V
1
1
–INPUT
–INPUT
Figure 1A. No Suffix
Figure 1B. "N" Suffix
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MDC_BCP Models.B06 Page 5 of 7
Dual Output BCP Models
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
Thermal Shutdown
The BCP Series is equipped with Thermal Shutdown circuitry. If environmental
conditions cause the internal temperature of the DC/DC converter to rise
above the designed operating temperature (see Performance/Functional Specifications), a precision temperature sensor will power down the unit. When the
internal temperature decreases below the threshold of the temperature sensor
the unit will self-start.
Input Reverse-Polarity Protection
Upon applying a reverse-polarity voltage to the DC/DC converter, an internal
diode will be forward biased and draw excessive current from the power
source. Therefore, it is required that the input current be limited be either an
appropriately rated input fuse or a current limited power source.
Threaded Inserts and Heatsink Installation
CAUTION: Do not use the threaded inserts to bolt the converter down to a PC
board. That will place unnecessary force on the mounting pins. Instead, the
converter is held securely by only soldering the mounting pins.
When attaching the heat sink from above the converter, use a maximum
torque of 2 inch-pounds (0.23 N-m) on the M3 bolts to avoid damaging the
threaded inserts. Use a tiny amount of fastener adhesive or M3 lockwashers to
secure the bolts.
For optimum thermal performance in a natural convection application, the
low-profile heat sink should be mounted with the fins vertically oriented. Both
models are shipped with 0.009" self-adhesive thermal pad and mounting
screws.
Note:
When mounting the heat sink to the BCP converter:
1. Maximum applied torque is 2 in-lbs.
2. Minimum thread engagement of the mounting screws is
12mm deep.
6
˚C
WATT
Case Connection
BCP DC/DC's do not connect the metal baseplate to an internal voltage. The
"uncommitted" baseplate is connected to pin 2 which, depending upon your
system configuration, should be connected to either +Input (pin 4), –Input (pin
1), Output Return (pins 6 & 9), or earth ground.
Heat Sinks for BCP Series
MPS offers two standard heat sinks that can be mounted to the half-brick
package to extend the converter's operating temperature range. Along with the
standard 2.3" x 2.4" x 0.5" (HS-CP) heat sink, MPS has designed a low-profile
heat sink for height-restricted applications. This new heat sink (HS-CPLP2)
is designed with radiant fins that extend 0.51" beyond either side of the 2.4"
dimension of the BCP package. The convenience of this design is that the finned
extensions protrude only 0.31" below the top surface of the DC/DC converter,
allowing components with a profile height less than 0.2" to be mounted on
the pc board below the heat sink. Therefore, while the surface area of the lowprofile heat sink measures 2.3" x 3.5", pcb real estate is unaffected.
5
4
THERMAL RESISTANCE
Output Overvoltage Protection
Each voltage output of the BCP Series converter is independently monitored via
an output comparator. If the output voltage should rise to a level which could
be damaging to the load circuitry (see Performance/Functional Specifications
for limits), the overvoltage circuitry will power down the PWM controller causing the output voltages to collapse. Following a time out period the converter
will restart. If the fault condition persists the PWM will again power down and
the cycle will repeat. This on/off cycling is referred to as a "hiccup-mode."
HS-CPLP2
3
HS-CP
2
1
0
0
100
200
300
400
500
600
700
AIR VELOCITY (FT./MIN.)
Figure 2. HS-CP and HS-CPLP2 Heat Sink Performance Vs. Air Flow
Soldering Guidelines
Murata Power Solutions recommends the specifications below when installing these
converters. These specifications vary depending on the solder type. Exceeding these
specifications may cause damage to the product. Be cautious when there is high atmospheric humidity. We strongly recommend a mild pre-bake (100° C. for 30 minutes). Your
production environment may differ; therefore please thoroughly review these guidelines
with your process engineers.
Wave Solder Operations for through-hole mounted products (THMT)
For Sn/Ag/Cu based solders:
Maximum Preheat Temperature
115° C.
Maximum Pot Temperature
270° C.
Maximum Solder Dwell Time
7 seconds
For Sn/Pb based solders:
Maximum Preheat Temperature
105° C.
Maximum Pot Temperature
250° C.
Maximum Solder Dwell Time
6 seconds
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MDC_BCP Models.B06 Page 6 of 7
Dual Output BCP Models
3.3 and 2.5V, Half-Brick
50 Watt DC/DC Converters
Output Trimming
Both the 3.3V and 2.5V outputs of the BCP Series can be independently
trimmed via a trimpot (Figure 3A) or a single fixed resistor as shown (Figures 3B
& 3C). The trimpot can be used to determine the value of a single fixed resistor.
A single fixed resistor can increase or decrease the output voltage depending on its connection. Fixed resistors should have absolute TCR’s less than
100ppm/°C to ensure stability
+2.5V OUTPUT
2.5V TRIM
1
+2.5V OUTPUT
+3.3V OUTPUT
+INPUT
3.3V TRIM
2.5V TRIM
+3.3V OUTPUT
4
8
–INPUT
2.5V RETURN
3.3V RETURN
20kΩ
5-22
TURNS
+2.5V
TRIM
UP
+2.5V
LOAD
+3.3V
TRIM
UP
+3.3V
LOAD
7
5
6
+2.5V
LOAD
9
Figure 3B. Increase Output Voltage Trim Connections Using a Fixed Resistor
7
+INPUT
3.3V TRIM
9
10
3.3V RETURN
1
8
–INPUT
2.5V RETURN
4
10
5
20kΩ
5-22
TURNS
+3.3V
LOAD
6
A single resistor connected from the Trim Pin (pin 5 for 3.3V trim, pin 8 for
2.5V trim) to its appropriate +Output (pin 7 for 3.3V trim, pin 10 for 2.5V trim)
will decrease the output voltage.
Figure 3A. Trim Connections Using a Trimpot
A resistor connected from the Trim Pin (pin 5 for 3.3V trim, pin 8 for 2.5V trim)
to the appropriate Return (pin 6 for 3.3V trim, pin 9 for 2.5V trim) will increase
the output voltage.
+2.5V OUTPUT
1
–INPUT
2.5V TRIM
2.5V RETURN
+3.3V OUTPUT
4
10
8
9
+2.5V
TRIM
DOWN
+2.5V
LOAD
+3.3V
TRIM
DOWN
+3.3V
LOAD
7
+INPUT
3.3V TRIM
3.3V RETURN
5
6
Figure 3C. Decrease Output Voltage Trim Connections Using a Fixed Resistor
Murata Power Solutions, Inc.
11 Cabot Boulevard, Mansfield, MA 02048-1151 U.S.A.
ISO 9001 and 14001 REGISTERED
This product is subject to the following operating requirements
and the Life and Safety Critical Application Sales Policy:
Refer to: http://www.murata-ps.com/requirements/
Murata Power Solutions, Inc. makes no representation that the use of its products in the circuits described herein, or the use of other
technical information contained herein, will not infringe upon existing or future patent rights. The descriptions contained herein do not imply
the granting of licenses to make, use, or sell equipment constructed in accordance therewith. Specifications are subject to change without
notice.
© 2012 Murata Power Solutions, Inc.
www.murata-ps.com/support
MDC_BCP Models.B06 Page 7 of 7