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PRODUCT OVERVIEW
The OKL-T/6-W5 series are non-isolated Point-of-Load (PoL) DC/DC power converters for embedded applications. Featuring inspectable Land Grid Array (LGA) format, the OKL-T/6-W5 measures only 0.48 x 0.48 x 0.283 inches max. (12.2 x 12.2 x 7.2 mm max.). The wide input range is 2.4 to 5.5 Volts DC. The maximum output current is 6 Amps. Based on fixed-frequency synchronous buck converter switching topology, the high power conversion
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
Typical unit
efficient Point of Load (PoL) module features programmable output voltage and On/Off control. These converters also include under voltage lock out (UVLO), output short circuit protection, overcurrent and over temperature protections. An optional sequence/tracking feature allows power sequencing of PoL's. These units meet all standard UL/EN/IEC 60950-1 safety certifications (2nd Edition) and RoHS-6 hazardous substance compliance.
FEATURES

2.4-5.5Vdc input voltage range Programmable output voltage from 0.6-3.3Vdc High power conversion efficiency at 93.5% Inspectable Land Grid Array Drives up to 300 F ceramic capacitive loads On/Off control Optional Sequence/Tracking operation Outstanding thermal derating performance Over temperature and over current protection Meets UL/EN/IEC 60950-1 safety, 2nd Edition RoHS-6 hazardous substance compliance Contents Description, Connection Diagram, Photograph Ordering Guide, Model Numbering, Product Label Mechanical Specifications, Input/Output Pinout Output Voltage Adustment, Application Notes Soldering Guidelines Performance Data and Oscillograms Tape & Reel Information Page 1 2 3 5 7 8 15
Connection Diagram
+Vin F1 +Vout
On/Off Control
Sense Controller
External DC Power Source
Trim Open = On Closed = Off (Positive On/Off) Common Reference and Error Amplifier
Common
Sequence/Tracking (OKL2 Models) Figure 1. OKL-T/6-W5 Note: Murata Power Solutions strongly recommends an external input fuse, F1. See specifications.
For full details go to www.murata-ps.com/rohs
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MDC_OKL-T/6-W5 Series.A02 Page 1 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
Performance Specifications and Ordering Guide
ORDERING GUIDE Input Package-Pinout P83 Efficiency On/Off Seq/ Regulation (max.) Vin nom. Range Iin, no load Iin, full load Vout Iout (Amps, Power R/N (mV p-p) Case C83 Polarity Track (Volts) max.) (Watts) Max. (Volts) (Volts) (mA) (Amps) Min. Typ. inches (mm) Line Load 0.6-3.3 0.6-3.3 0.6-3.3 0.6-3.3 6 6 6 6 19.8 19.8 19.8 19.8 25 25 25 25 0.35% 0.35% 0.35% 0.35% 0.35% 0.35% 0.35% 0.35% 5 5 5 5 2.4-5.5 2.4-5.5 2.4-5.5 2.4-5.5 25 25 25 25 4.24 4.24 4.24 4.24 91.5% 93.5% 91.5% 93.5% 91.5% 93.5% 91.5% 93.5% Pos. Neg. Pos. Neg. no no yes yes 0.48x0.48x0.283 max (12.2x12.2x7.2) max 0.48x0.48x0.283 max (12.2x12.2x7.2) max 0.48x0.48x0.283 max (12.2x12.2x7.2) max 0.48x0.48x0.283 max (12.2x12.2x7.2) max Output
Model Number
OKL-T/6-W5P-C OKL-T/6-W5N-C OKL2-T/6-W5P-C OKL2-T/6-W5N-C

The output range (50% load) is limited by Vin. See detailed specs for full conditions. All specifications are at nominal line voltage, Vout=nominal (3.3V for W5 models) and full load, +25 deg.C. unless otherwise noted. Output capacitors are 10 F ceramic. Input cap is 22 F. See detailed specifications. I/O caps are necessary for our test equipment and may not be needed for your application.
Use adequate ground plane and copper thickness adjacent to the converter. f Ripple and Noise (R/N) are shown at Vout=1V. See specs for details. No load input current is shown at Vout = 3.3V.
PART NUMBER STRUCTURE
OK L 2 - T / 6 - W5 N - C
Okami Non-isolated PoL LGA Surface Mount Sequence/tracking Blank = Not installed 2 = Installed Trimmable Output Voltage Range 0.6-3.3Vdc RoHS Hazardous Substance Compliance C = RoHS-6 (does not claim EU RoHS exemption 7b-lead in solder) On/Off Polarity P = Positive Polarity N = Negative Polarity
Input Voltage Range 2.4-5.5Vdc Maximum Rated Output Current in Amps
Product Label Because of the small size of these products, the product label contains a character-reduced code to indicate the model number and manufacturing date code. Not all items on the label are always used. Please note that the label differs from the product photograph. Here is the layout of the label:
Model Number OKL-T/6-W5P-C OKL-T/6-W5N-C OKL2-T/6-W5P-C OKL2-T/6-W5N-C
Mfg. date code XXXXXX YMDX Rev. Product code Revision level
Product Code L01006 L00006 L21006 L20006
The manufacturing date code is four characters: First character - Last digit of manufacturing year, example 2009 Second character - Month code (1 through 9 and O through D) Third character - Day code (1 through 9 = 1 to 9, 10=O and 11 through 31 = A through Z) Fourth character - Manufacturing information
Figure 2. Label Artwork Layout
The label contains three rows of information: First row - Murata Power Solutions logo Second row - Model number product code (see table) Third row - Manufacturing date code and revision level
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MDC_OKL-T/6-W5 Series.A02 Page 2 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
MECHANICAL SPECIFICATIONS
Top View
0.48 (12.19) 0.043 (1.09) NOM. PCB THK
INPUT/OUTPUT CONNECTIONS Pin 1 2 3 4 5 6 7 8 9 10 11 12 Function On/Off Control* VIN Ground VOUT Sense Trim Ground No Connection Sequence/Tracking No Connection No Connection No Connection
Bottom View
0.48 (12.19)
Side View
*The Remote On/Off can be provided with either positive (P suffix) or negative (N suffix) polarity
0.283 (7.2) max.
End View Recommended Footprint -through the Board0.480 (12.19) 0.135 0.180 (3.43) (4.57) 0.045 (1.14) 2 Vin Vout 0.480 REF (12.19) Gnd Vin On/Off C L C L 1 On/Off 0.090 (2.29) 10 9 Seq 12 0.150 (3.81) 7 0.240 (6.10) 8 0.420 (10.67) 0.330 (8.38) NC Gnd 8 7 NC 12
Dimensions are in inches (mm shown for ref. only).
Third Angle Projection
Bottom View
0.060 (1.52) 0.195 (4.95) 0.375 (9.53)
0.070 x 0.160 x3 (1.77 x 4.07) 4
0
4 0.420 (10.67) 0.375 (9.53) 5 11 0.150 (3.81) 6 0.060 (1.52) 0 Trim
3
2
3 Gnd Vout Sense NC
0.240 (6.10)
Sense NC NC Gnd
1 10
0.180 (4.57) 0.135 (3.43) 5 11 6
0.180 (4.57)
NC
Seq 9 Trim
0.090 (2.29) 0.180 0.090 (4.57) (2.29) 0.040 x 0.040 (9 places) (1.01 x 1.01)
Tolerances (unless otherwise specified): .XX 0.02 (0.5) .XXX 0.010 (0.25) Angles 1
Figure 3. OKL-T/6-W5 Mechanical Outline
Components are shown for reference only.
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MDC_OKL-T/6-W5 Series.A02 Page 3 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
Performance and Functional Specifications
See Note 1
Input Dynamic Characteristics
Dynamic Load Response See Ordering Guide and Note 7. Not isolated 2.05 V 1.92 V None TBD mA pk-pk Capacitive TBD None, Install external fuse See Ordering Guide TBD A2Sec. 1 mA 10 mA 4.68 A (Vout = 3.3V) ON = Open pin or -0.2V to Vin -1.6V max. OFF = Vin -0.8V min. to +Vin max. ON = Open pin (internally pulled up) or +1.2V to +Vin max. OFF = -0.3V to +0.3V max. or ground TBD 2 Volts per millisecond, max. Vout = 100 mV of Sequence In Vout = 100 mV of Sequence In
Output
50Sec max. to within 2% of final value (Note 1) 350 mV 6 mSec for Vout=nominal (Vin On) 6 mSec for Vout=nominal (Remote On/Off) 600 KHz 100 kHz
Environmental
Input Voltage Range Isolation Start-Up Voltage Undervoltage Shutdown (see Note 15) Overvoltage Shutdown Reflected (Back) Ripple Current (Note 2) Internal Input Filter Type Recommended External Fuse Reverse Polarity Protection Input Current: Full Load Conditions Inrush Transient Shutdown Mode (Off, UV, OT) Output in Short Circuit Low Line (Vin=Vmin) Remote On/Off Control (Note 5) Negative Logic Positive Logic
(50-100% load step, di/dt=1A/Sec) Peak Deviation Start-Up Time (Vin on or On/Off to Vout regulated) Switching Frequency
Calculated MTBF (hours) Telecordia method (4a) Calculated MTBF (hours) MIL-HDBK-217N2 method (4b)
OKL Models 5,573,000 5,999,000
OKL2 Models 5,341,000 5,176,000
Operating Temperature Range (Ambient, all output ranges) See derating curves -40 to +85 C. with derating (Note 9) Storage Temperature Range -55 to +125 C. Thermal Protection/Shutdown Included in PWM Relative Humidity To 85%/+85 C., non-condensing
Physical
Outline Dimensions Weight Safety
Current Tracking/Sequencing (optional) Slew Rate Tracking accuracy, rising input Tracking accuracy, falling input
Restriction of Hazardous Substances
See Mechanical Specifications 0.06 ounces (1.6 grams) Meets UL/cUL 60950-1, CSAC22.2 No. 60950-1, IEC/EN 60950-1, 2nd Edition RoHS-6 (does not claim EU RoHS exemption 7b-lead in solder)
Absolute Maximum Ratings
Output Power Output Voltage Range Minimum Loading Accuracy (50% load, untrimmed) Voltage Output Range (Note 13) Overvoltage Protection (Note 16) Temperature Coefficient Ripple/Noise (20 MHz bandwidth) Line/Load Regulation Efficiency Maximum Capacitive Loading (Note 14) Cap-ESR=0.001 to 0.01 Ohms Cap-ESR >0.01 Ohms Current Limit Inception (Note 6) (98% of Vout setting, after warm up) Short Circuit Mode Short Circuit Current Output Protection Method Short Circuit Duration Prebias Startup
19.8W max. See Ordering Guide No minimum load 2 % of Vnominal See Ordering Guide None TBD See Ordering Guide and note 8 See Ordering Guide and note 10 See Ordering Guide 300 F TBD 12 Amps 10 mA Hiccup autorecovery upon overload removal. (Note 17) Continuous, no damage (output shorted to ground) Converter will start up if the external output voltage is less than Vnominal.
0 V. to +6 Volts max. 0 V. min. to +Vin max. None, Install external fuse Current-limited. Devices can withstand a sustained short circuit without damage. The outputs are not intended to accept appreciable reverse current. Storage Temperature -55 to +125 C. Lead Temperature See soldering specifications Absolute maximums are stress ratings. Exposure of devices to greater than any of 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 nor recommended.
Input Voltage (Continuous or transient) On/Off Control Input Reverse Polarity Protection Output Current (Note 7)
Specification Notes:
(1) Specifications are typical at +25 C, Vin=nominal (+5V), Vout=nominal (+3.3V), full load, external caps and natural convection unless otherwise indicated. Extended tests at full power must supply substantial forced airflow. All models are tested and specified with external 10F ceramic output capacitors and a 22 F external input capacitor. All capacitors are low ESR types. These capacitors are necessary to accommodate our test equipment and may not be required to achieve specified performance in your applications. However, Murata Power Solutions recommends installation of these capacitors. All models are stable and regulate within spec under no-load conditions. (2) (3) Input Back Ripple Current is tested and specified over a 5 Hz to 20 MHz bandwidth. Input filtering is Cin=2 x 100 F ceramic, Cbus=1000 F electrolytic, Lbus=1 H. Note that Maximum Power Derating curves indicate an average current at nominal input voltage. At higher temperatures and/or lower airflow, the DC/DC converter will tolerate brief full current outputs if the total RMS current over time does not exceed the Derating curve.
(4a) Mean Time Before Failure is calculated using the Telcordia (Belcore) SR-332 Method 1, Case 3, ground fixed conditions, Tpcboard=+25 C, full output load, natural air convection. (4b) Mean Time Before Failure is calculated using the MIL-HDBK-217N2 method, ground benign, +25C., full output load, natural convection. (5) The On/Off Control Input should use either a switch or an open collector/open drain transistor referenced to -Input Common. A logic gate may also be used by applying appropriate external voltages which do not exceed +Vin. Short circuit shutdown begins when the output voltage degrades approximately 2% from the selected setting.
(6)
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MDC_OKL-T/6-W5 Series.A02 Page 4 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
Specification Notes, Cont.:
(7) (8) Please observe the voltage input and output specifications in the Voltage Range Graph on page 7. Output noise may be further reduced by adding an external filter. At zero output current, the output may contain low frequency components which exceed the ripple specification. The output may be operated indefinitely with no load. All models are fully operational and meet published specifications, including "cold start" at -40 C.
APPLICATION NOTES
(9)
(10) Regulation specifications describe the deviation as the line input voltage or output load current is varied from a nominal midpoint value to either extreme. (11) Other input or output voltage ranges will be reviewed under scheduled quantity special order. (12) Maximum PC board temperature is measured with the sensor in the center of the converter. (13) Do not exceed maximum power specifications when adjusting the output trim. (14) The maximum output capacitive loads depend on the the Equivalent Series Resistance (ESR) of the external output capacitor and, to a lesser extent, the distance and series impedance to the load. Larger caps will reduce output noise but may change the transient response. Newer ceramic caps with very low ESR may require lower capacitor values to avoid instability. Thoroughly test your capacitors in the application. Please refer to the Output Capacitive Load Application Note. (15) Do not allow the input voltage to degrade lower than the input undervoltage shutdown voltage at all times. Otherwise, you risk having the converter turn off. The undervoltage shutdown is not latching and will attempt to recover when the input is brought back into normal operating range. (16) The outputs are not intended to sink appreciable reverse current. (17) "Hiccup" overcurrent operation repeatedly attempts to restart the converter with a brief, full-current output. If the overcurrent condition still exists, the restart current will be removed and then tried again. This short current pulse prevents overheating and damaging the converter. Once the fault is removed, the converter immediately recovers normal operation.
Input Fusing Certain applications and/or safety agencies may require fuses at the inputs of power conversion components. Fuses should also be used when there is the possibility of sustained input voltage reversal which is not currentlimited. For greatest safety, we recommend a fast blow fuse installed in the ungrounded input supply line. The installer must observe all relevant safety standards and regulations. For safety agency approvals, install the converter in compliance with the end-user safety standard. Input Under-Voltage Shutdown and Start-Up Threshold Under normal start-up conditions, converters will not begin to regulate properly until the rising input voltage exceeds and remains at the Start-Up Threshold Voltage (see Specifications). Once operating, converters will not turn off until the input voltage drops below the Under-Voltage Shutdown Limit. Subsequent restart will not occur until the input voltage rises again above the Start-Up Threshold. This built-in hysteresis prevents any unstable on/off operation at a single input voltage. Users should be aware however of input sources near the Under-Voltage Shutdown whose voltage decays as input current is consumed (such as capacitor inputs), the converter shuts off and then restarts as the external capacitor recharges. Such situations could oscillate. To prevent this, make sure the operating input voltage is well above the UV Shutdown voltage AT ALL TIMES. Start-Up Delay Assuming that the output current is set at the rated maximum, the Vin to Vout Start-Up Delay (see Specifications) is the time interval between the point when the rising input voltage crosses the Start-Up Threshold and the fully loaded regulated output voltage enters and remains within its specified regulation band. Actual measured times will vary with input source impedance, external input capacitance, input voltage slew rate and final value of the input voltage as it appears at the converter. These converters include a soft start circuit to moderate the duty cycle of the PWM controller at power up, thereby limiting the input inrush current.
Output Voltage Adustment The output voltage may be adjusted over a limited range by connecting an external trim resistor (Rtrim) between the Trim pin and Ground. The Rtrim resistor must be a 1/10 Watt precision metal film type, 0.5% accuracy or better with low temperature coefficient, 100 ppm/C. or better. Mount the resistor close to the converter with very short leads or use a surface mount trim resistor. In the table below, the calculated resistance is given. Do not exceed the specified limits of the output voltage or the converter's maximum power rating when applying these resistors. Also, avoid high noise at the Trim input. However, to prevent instability, you should never connect any capacitors to Trim.
Resistor Trim Equation, OKL-T/6-W5 models: 1.2 RTRIM (K:) = ___________ VOUT - 0.6
Output Voltage 3.3 V. 2.5 V. 1.8 V. 1.5 V. 1.2 V. 1.0 V. 0.6 V.
Calculated Rtrim (K) 0.444 0.632 1.0 1.333 2.0 3.0 (open)
The On/Off Remote Control interval from inception to Vout regulated assumes that the converter already has its input voltage stabilized above the Start-Up Threshold before the On command. The interval is measured from the On command until the output enters and remains within its specified accuracy band. The specification assumes that the output is fully loaded at maximum rated current. Recommended Input Filtering The user must assure that the input source has low AC impedance to provide dynamic stability and that the input supply has little or no inductive content, including long distributed wiring to a remote power supply. The converter will operate with no additional external capacitance if these conditions are met.
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MDC_OKL-T/6-W5 Series.A02 Page 5 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
For best performance, we recommend installing a low-ESR capacitor immediately adjacent to the converter's input terminals. The capacitor should be a ceramic type such as the Murata GRM32 series or a polymer type. Initial suggested capacitor values are 10 to 22 F, rated at twice the expected maximum input voltage. Make sure that the input terminals do not go below the undervoltage shutdown voltage at all times. More input bulk capacitance may be added in parallel (either electrolytic or tantalum) if needed. Recommended Output Filtering The converter will achieve its rated output ripple and noise with no additional external capacitor. However, the user may install more external output capacitance to reduce the ripple even further or for improved dynamic response. Again, use low-ESR ceramic (Murata GRM32 series) or polymer capacitors. Initial values of 10 to 47 F may be tried, either single or multiple capacitors in parallel. Mount these close to the converter. Measure the output ripple under your load conditions. Use only as much capacitance as required to achieve your ripple and noise objectives. Excessive capacitance can make step load recovery sluggish or possibly introduce instability. Do not exceed the maximum rated output capacitance listed in the specifications. Input Ripple Current and Output Noise All models in this converter series are tested and specified for input reflected ripple current and output noise using designated external input/ output components, circuits and layout as shown in the figures below. The Cbus and Lbus components simulate a typical DC voltage bus. Please note that the values of Cin, Lbus and Cbus will vary according to the specific converter model.
TO OSCILLOSCOPE
COPPER STRIP +OUTPUT
C1
C2
SCOPE
RLOAD
-OUTPUT COPPER STRIP
C1 = 1F CERAMIC C2 = 10F CERAMIC LOAD 2-3 INCHES (51-76mm) FROM MODULE
Figure 5: Measuring Output Ripple and Noise (PARD)
Minimum Output Loading Requirements All models regulate within specification and are stable under no load to full load conditions. Operation under no load might however slightly increase output ripple and noise. Temperature Derating Curves The graphs in the next section illustrate typical operation under a variety of conditions. The Derating curves show the maximum continuous ambient air temperature and decreasing maximum output current which is acceptable under increasing forced airflow measured in Linear Feet per Minute ("LFM"). Note that these are AVERAGE measurements. The converter will accept brief increases in current or reduced airflow as long as the average is not exceeded. Note that the temperatures are of the ambient airflow, not the converter itself which is obviously running at higher temperature than the outside air. Also note that very low flow rates (below about 25 LFM) are similar to "natural convection", that is, not using fan-forced airflow. Murata Power Solutions makes Characterization measurements in a closed cycle wind tunnel with calibrated airflow. We use both thermocouples and an infrared camera system to observe thermal performance.
CURRENT PROBE +INPUT LBUS CBUS CIN
VIN
+ - + -
-INPUT CIN = 2 x 100F, ESR < 700m @ 100kHz CBUS = 1000F, ESR < 100m @ 100kHz LBUS = 1H
Figure 4: Measuring Input Ripple Current
In figure 5, the two copper strips simulate real-world printed circuit impedances between the power supply and its load. In order to minimize circuit errors and standardize tests between units, scope measurements should be made using BNC connectors or the probe ground should not exceed one half inch and soldered directly to the test circuit.
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MDC_OKL-T/6-W5 Series.A02 Page 6 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
Output Current Limiting Current limiting inception is defined as the point at which full power falls below the rated tolerance. See the Performance/Functional Specifications. Note particularly that the output current may briefly rise above its rated value in normal operation as long as the average output power is not exceeded. This enhances reliability and continued operation of your application. If the output current is too high, the converter will enter the short circuit condition. Output Short Circuit Condition When a converter is in current-limit mode, the output voltage will drop as the output current demand increases. If the output voltage drops too low (approximately 98% of nominal output voltage for most models), the magnetically coupled voltage used to develop PWM bias voltage will also drop, thereby shutting down the PWM controller. Following a time-out period, the PWM will restart, causing the output voltage to begin rising to its appropriate value. If the short-circuit condition persists, another shutdown cycle will initiate. This rapid on/off cycling is called "hiccup mode". The hiccup cycling reduces the average output current, thereby preventing excessive internal temperatures and/or component damage. The "hiccup" system differs from older latching short circuit systems because you do not have to power down the converter to make it restart. The system will automatically restore operation as soon as the short circuit condition is removed. Remote On/Off Control The remote On/Off Control can be specified with either positive or negative logic polarity. Please refer to the Connection Diagram on page 1 for On/Off connections. Positive polarity models are enabled when the On/Off pin is left open or is pulled high to +Vin with respect to -Vin. An internal bias current causes the open pin to rise to +Vin. Positive-polarity devices are disabled when the On/Off is grounded or brought to within a low voltage (see Specifications) with respect to -Vin. Negative polarity devices are on (enabled) when the On/Off is open or brought to within a low voltage (see Specifications) with respect to -Vin. The device is off (disabled) when the On/Off is pulled high with respect to -Vin (see specifications). Dynamic control of the On/Off function should be able to sink the specified signal current when brought low and withstand appropriate voltage when brought high. Be aware too that there is a finite time in milliseconds (see Specifications) between the time of On/Off Control activation and stable, regulated output. This time will vary slightly with output load type and current and input conditions. Output Capacitive Load These converters do not require external capacitance added to achieve rated specifications. Users should only consider adding capacitance to reduce switching noise and/or to handle spike current load steps. Install only enough capacitance to achieve noise objectives. Excess external capacitance may cause regulation problems, degraded transient response and possible oscillation or instability. Voltage Range Graph Please observe the limits below for voltage input and output ranges. These limits apply at all output currents.
6 5 Input Voltage (V) 4 Vin=2.4V / Vout=1.8V 3 2 1 0 0.5 1 1.5 2 2.5 3 3.5 Output Voltage (V) Upper Limit Lower Limit
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. Your production environment may differ therefore please thoroughly review these guidelines with your process engineers.
Reflow Solder Operations for surface-mount products (SMT)
For Sn/Ag/Cu based solders: Preheat Temperature Time over Liquidus Maximum Peak Temperature Cooling Rate For Sn/Pb based solders: Preheat Temperature Time over Liquidus Maximum Peak Temperature Cooling Rate Less than 1 C. per second 60 to 75 seconds 235 C. Less than 3 C. per second Less than 1 C. per second 45 to 75 seconds 260 C. Less than 3 C. per second
Recommended Lead-free Solder Reflow Profile
250 Peak Temp. 235-260 C
200
Temperature (C)
150 Soaking Zone 120 sec max 100 <1.5 C/sec 50 240 sec max
Reflow Zone time above 217 C 45-75 sec
Preheating Zone
0 0 30 60 90 120 150 Time (sec) 180 210 240 270 300
High trace = normal upper limit Low trace - normal lower limit
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MDC_OKL-T/6-W5 Series.A02 Page 7 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 3.3V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 3.3V).
7 6 Output Current (Amps) Natural convection 5 4 3 2 1
0 2 Load Curre nt (Amps) 4 6
100 99 98 Efficiency (%) 97 96 95 94 93 VIN = 4V VIN = 5V VIN = 5.5V
0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=3.3V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=3.3V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=3.3V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=3.3V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 2.5V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 2.5V).
7 6 Output Current (Amps) Natural convection 5 4 3 2 1
0 2 Load Curre nt (Amps) 4 6
100
98 Efficiency (%)
96 VIN = 3V VIN = 5V VIN = 5.5V
94
92
90
0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=2.5V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=2.5V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=2.5V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=2.5V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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MDC_OKL-T/6-W5 Series.A02 Page 9 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 1.8V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 1.8V).
7 6 Output Current (Amps) Natural convection 5 4 3 2 1
0 2 Load Curre nt (Amps) 4 6
98 96 Efficiency (%) 94 92 90 88 86 VIN = 2.4V VIN = 5V VIN = 5.5V
0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=1.8V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=1.8V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=1.8V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=1.8V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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MDC_OKL-T/6-W5 Series.A02 Page 10 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 1.5V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 1.5V).
7 6 Output Current (Amps) Natural convection 5 4 3 2 1
0 2 Load Curre nt (Amps) 4 6
98 96 94 Efficiency (%) 92 90 88 86 84 VIN = 2.4V VIN = 5V VIN = 5.5V
0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=1.5V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=1.5V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=1.5V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=1.5V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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MDC_OKL-T/6-W5 Series.A02 Page 11 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 1.2V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 1.2V).
7 6 Output Current (Amps) Natural convection 5 4 3 2 1
0 2 Load Curre nt (Amps) 4 6
96 94 92 Efficiency (%) 90 88 86 84 82 VIN = 2.4V VIN = 5V VIN = 5.5V
0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=1.2V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=1.2V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=1.2V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=1.2V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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13 May 2010
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MDC_OKL-T/6-W5 Series.A02 Page 12 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 1.0V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 1.0V).
7 6 Output Current (Amps) Natural convection 5 4 3 2
78 0 2 4 Load Curre nt (Amps) 6 Efficiency (%) 88 VIN = 2.4V VIN = 5V VIN = 5.5V
93
83
1 0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=1.0V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=1.0V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=1.0V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=1.0V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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13 May 2010
email: sales@murata-ps.com
MDC_OKL-T/6-W5 Series.A02 Page 13 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
PERFORMANCE DATA, OKL-T/6-W5
Efficiency vs. Line Voltage and Load Current @ +25C (VOUT = 0.6V) Maximum Current Temperature Derating at Sea Level (VIN= 5V, VOUT = 0.6V).
7 6
85 Efficiency (%)
90
Output Current (Amps)
Natural convection 5 4 3 2
80
VIN = 2.4V VIN = 5V VIN = 5.5V
75
70 0 2 Load Curre nt (Amps) 4 6
1 0 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 Ambient Temperature (C)
Output Ripple and Noise (Vin=5V, Vout=0.6V, Iout=6A, ScopeBW=100MHz)
On/Off Enable Startup (Vin=5V, Vout=0.6V, Iout=6A, Cload=0) Trace 4=Enable, Trace2=Vout
Step Load Transient Response (Vin=5V, Vout=0.6V, Iout=6A to 3A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
Step Load Transient Response (Vin=5V, Vout=0.6V, Iout=3A to 6A) Trace 2=Vout, 200 mV/div. Trace 4=Iout, 5A/div.
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13 May 2010
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MDC_OKL-T/6-W5 Series.A02 Page 14 of 15
OKL-T/6-W5 Series
Programmable Output 6-Amp iLGA SMT PoLs
TAPE AND REEL INFORMATION
Tape Detail
7.400.1 2.000.1 o1.50+0.1 -0 16.000.1 B' 4.000.1 1.750.1 Round Sprocket Holes 0.400.05
11.500.1
24.00+0.3 -0.1
Vacuum Pickup Point in Center (7.0)
A
B 12.600.1
A'
Pulling direction
Notes 1) The radius (R) is 0.3mm max. 2) Cumulative tolerance of 10 pitches of the sprocket hole is 0.2mm.
A-A' SECTION
Reel Detail
Reel diameter 330.2 A End of modules C Start of pocket tape
B Start of modules in pockets Hub diameter 13.00 Inner diameter 101.6 Start of cover tape
Reel Information (400 units per reel)
Key Description Tape trailer (no modules) Pocket tape length before modules Cover tape length before pocket tape Length (mm) 800 40 200 min. 240 40 A B C
All dimensions are in millimeters.
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13 May 2010
(7.0)
email: sales@murata-ps.com
MDC_OKL-T/6-W5 Series.A02 Page 15 of 15
B-B' SECTION
12.600.1
YMDX Rev.
YMDX Rev.
YMDX Rev.
L00103
L00103
L00103

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