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FEATURES
High efficiency: 96% @ 5.0Vin, 3.3V/10A out Small size and low profile: (SIP) 50.8x 13.4x 8.0 mm (2.00" x 0.53" x 0.31") Signle-in-line (SIP) packaging Standard footprint Voltage and resistor-based trim Pre-bias startup Output voltage tracking No minimum load required Output voltage programmable from 0.75Vdc to 3.3Vdc via external resistor Fixed frequency operation Input UVLO, output OTP, OCP Remote ON/OFF Remote sense ISO 9001, TL 9000, ISO 14001, QS9000, OHSAS18001 certified manufacturing facility UL/cUL 60950 (US & Canada) Recognized, and TUV (EN60950) Certified CE mark meets 73/23/EEC and 93/68/EEC
Delphi DNM, Non-Isolated Point of Load
DC/DC Power Modules: 2.8-5.5Vin, 0.75-3.3V/10A out
directives
OPTIONS
The Delphi Series DNM04, 2.8-5.5V input, single output, non-isolated Point of Load DC/DC converters are the latest offering from a world leader in power system and technology and manufacturing -- Delta Electronics, Inc. The DNM04 series provides a programmable output voltage from 0.75V to 3.3V using an external resistor. The DNM series has flexible and programmable tracking and sequencing features to enable a variety of startup voltages as well as sequencing and tracking between power modules. This product family is available in a surface mount or SIP package and provides up to 10A of current in an industry standard footprint. With creative design technology and optimization of component placement, these converters possess outstanding electrical and thermal performance and extremely high reliability under highly stressful operating conditions.
Negative On/Off logic Tracking feature SMD package
APPLICATIONS
Telecom/DataCom Distributed power architectures Servers and workstations LAN/WAN applications Data processing applications
DATASHEET DS_DNM04SIP10_05292006
Delta Electronics, Inc.
TECHNICAL SPECIFICATIONS
(TA = 25C, airflow rate = 300 LFM, Vin = 2.8Vdc and 5.5Vdc, nominal Vout unless otherwise noted.)
PARAMETER
ABSOLUTE MAXIMUM RATINGS Input Voltage (Continuous) Tracking Voltage Operating Temperature Storage Temperature INPUT CHARACTERISTICS Operating Input Voltage Input Under-Voltage Lockout Turn-On Voltage Threshold Turn-Off Voltage Threshold Maximum Input Current No-Load Input Current Off Converter Input Current Inrush Transient Recommended Inout Fuse OUTPUT CHARACTERISTICS Output Voltage Set Point Output Voltage Adjustable Range Output Voltage Regulation Over Line Over Load Over Temperature Total Output Voltage Range Output Voltage Ripple and Noise Peak-to-Peak RMS Output Current Range Output Voltage Over-shoot at Start-up Output DC Current-Limit Inception Output Short-Circuit Current (Hiccup Mode) DYNAMIC CHARACTERISTICS Dynamic Load Response Positive Step Change in Output Current Negative Step Change in Output Current Setting Time to 10% of Peak Devitation Turn-On Transient Start-Up Time, From On/Off Control Start-Up Time, From Input Output Voltage Rise Time Maximum Output Startup Capacitive Load EFFICIENCY Vo=3.3V Vo=2.5V Vo=1.8V Vo=1.5V Vo=1.2V Vo=0.75V FEATURE CHARACTERISTICS Switching Frequency ON/OFF Control, (Negative logic) Logic Low Voltage Logic High Voltage Logic Low Current Logic High Current ON/OFF Control, (Positive Logic) Logic High Voltage Logic Low Voltage Logic Low Current Logic High Current Tracking Slew Rate Capability Tracking Delay Time Tracking Accuracy Remote Sense Range GENERAL SPECIFICATIONS MTBF Weight Over-Temperature Shutdown
NOTES and CONDITIONS
DNM04S0A0R10PFA
Min. 0 Typ. Max. 5.8 Vin,max +125 +125 5.5 2.2 2.0 Units Vdc Vdc C C V V V A mA mA A 2S A % Vo,set V % Vo,set % Vo,set % Vo,set % Vo,set mV mV A % Vo,set % Io Adc mV mV s ms ms ms F F % % % % % % kHz 0.3 Vin,max 10 1 Vin,max 0.3 1 10 2 200 400 0.1 V V A mA V V mA A V/msec ms mV mV V M hours grams C
Refer to Figure 45 for measuring point Vout Vin -0.5
-40 -55 2.8
Vin=2.8V to 5.5V, Io=Io,max 70 20 Vin=2.8V to 5.5V, Io=Io,min to Io,max Vin=5V, Io=100% Io, max, Tc=25 Vin=2.8V to 5.5V Io=Io,min to Io,max Tc=-40 to 100 Over sample load, line and temperature 5Hz to 20MHz bandwidth Full Load, 1F ceramic, 10F tantalum Full Load, 1F ceramic, 10F tantalum -2.0 0.7525 Vo,set 0.3 0.4 0.8 -3.0 25 8 0 Io,s/c 10F Tan & 1F Ceramic load cap, 2.5A/s 50% Io, max to 100% Io, max 100% Io, max to 50% Io, max Io=Io.max Vin=Vin,min, Vo=10% of Vo,set Vo=10% of Vo,set Time for Vo to rise from 10% to 90% of Vo,set Full load; ESR 1m Full load; ESR 10m Vi=5V, 100% Load Vi=5V, 100% Load Vi=5V, 100% Load Vi=5V, 100% Load Vi=5V, 100% Load Vi=5V, 100% Load 220 3.5 200 200 25 4 4 4
10 100 30 0.1 15 +2.0 3.63
+3.0 50 15 10 5 280
300 300 6 6 8 1000 5000
96.0 94.2 92.4 91.4 90.0 86.3 300
Module On, Von/off Module Off, Von/off Module On, Ion/off Module Off, Ion/off Module On, Von/off Module Off, Von/off Module On, Ion/off Module Off, Ion/off Delay from Vin.min to application of tracking voltage Power-up 2V/mS Power-down 1V/mS Io=100% of Io, max; Ta=25C Refer to Figure 45 for measuring point
-0.2 1.5 0.2 -0.2 0.2 0.1 10 100 200 21.91 10 130
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ELECTRICAL CHARACTERISTICS CURVES
100 95 EFFICIENCY(%) 90 85 80 75 1 2 3 4 5 6 7 8 9 10 OUTPUR CURRENT(A) EFFICIENCY(%) Vin=4.5V Vin=5.0V Vin=5.5V 100 95 90 85 80 75 1 2 3 4 5 6 7 8 9 10 OUTPUR CURRENT(A) Vin=3.0V Vin=5.0 Vin=5.5V
Figure 1: Converter efficiency vs. output current (3.3V out)
100 95 EFFICIENCY(%) 90 85 80 75 1 2 3 4 5 6 7 8 9 10 OUTPUR CURRENT(A)
Figure 2: Converter efficiency vs. output current (2.5V out)
100 95 EFFICIENCY(%) 90 85 80 75 1 2 3 4 5 6 7 8 9 10 OUTPUR CURRENT(A) Vin=2.8V Vin=5.0 Vin=5.5V
Vin=2.8V Vin=5.0V Vin=5.5V
Figure 3: Converter efficiency vs. output current (1.8V out)
95 90 EFFICIENCY(%) 85 80 75 70 65 1 2 3 4 5 6 7 8 9 10 OUTPUR CURRENT(A) Vin=2.8V Vin=5.0 Vin=5.5V
Figure 4: Converter efficiency vs. output current (1.5V out)
95 90 EFFICIENCY(%) 85 80 75 70 65 60 1 2 3 4 5 6 7 8 9 10 OUTPUR CURRENT(A) Vin=2.8V Vin=5.0 Vin=5.5V
Figure 5: Converter efficiency vs. output current (1.2V out)
Figure 6: Converter efficiency vs. output current (0.75V out)
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ELECTRICAL CHARACTERISTICS CURVES
Figure 7: Output ripple & noise at 3.3Vin, 2.5V/10A out
Figure 8: Output ripple & noise at 3.3Vin, 1.8V/10A out
Figure 9: Output ripple & noise at 5Vin, 3.3V/10A out
Figure 10: Output ripple & noise at 5Vin, 1.8V/10A out
Figure 11: Turn on delay time at 3.3Vin, 2.5V/10A out
Figure 12: Turn on delay time at 3.3Vin, 1.8V/10A out
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ELECTRICAL CHARACTERISTICS CURVES
Figure 13: Turn on delay time at 5Vin, 3.3V/10A out
Figure 14: Turn on delay time at 5Vin, 1.8V/10A out
Figure 15: Turn on delay time at remote turn on 5Vin, 3.3V/16A out
Figure 16: Turn on delay time at remote turn on 3.3Vin, 2.5V/16A out
Figure 17: Turn on delay time at remote turn on with external capacitors (Co= 5000 F) 5Vin, 3.3V/16A out
Figure 18: Turn on delay time at remote turn on with external capacitors (Co= 5000 F) 3.3Vin, 2.5V/16A out
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ELECTRICAL CHARACTERISTICS CURVES
Figure 19: Typical transient response to step load change at 2.5A/S from 100% to 50% of Io, max at 5Vin, 3.3Vout (Cout = 1uF ceramic, 10F tantalum)
Figure 20: Typical transient response to step load change at 2.5A/S from 50% to 100% of Io, max at 5Vin, 3.3Vout (Cout =1uF ceramic, 10F tantalum)
Figure 21: Typical transient response to step load change at 2.5A/S from 100% to 50% of Io, max at 5Vin, 1.8Vout (Cout =1uF ceramic, 10F tantalum)
Figure 22: Typical transient response to step load change at 2.5A/S from 50% to 100% of Io, max at 5Vin, 1.8Vout (Cout = 1uF ceramic, 10F tantalum)
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ELECTRICAL CHARACTERISTICS CURVES
Figure 23: Typical transient response to step load change at 2.5A/S from 100% to 50% of Io, max at 3.3Vin, 2.5Vout (Cout =1uF ceramic, 10F tantalum)
Figure 24: Typical transient response to step load change at 2.5A/S from 50% to 100% of Io, max at 3.3Vin, 2.5Vout (Cout =1uF ceramic, 10F tantalum)
Figure 25: Typical transient response to step load change at 2.5A/S from 100% to 50% of Io, max at 3.3Vin, 1.8Vout (Cout =1uF ceramic, 10F tantalum)
Figure 26: Typical transient response to step load change at 2.5A/S from 50% to 100% of Io, max at 3.3Vin, 1.8Vout (Cout = 1uF ceramic, 10F tantalum)
Figure 27: Output short circuit current 5Vin, 0.75Vout
Figure 28:Turn on with Prebias 5Vin, 3.3V/0A out, Vbias =1.0Vdc
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TEST CONFIGURATIONS
TO OSCILLOSCOPE
DESIGN CONSIDERATIONS
Input Source Impedance
VI(+)
L
2 100uF Tantalum
BATTERY
VI(-)
Note: Input reflected-ripple current is measured with a simulated source inductance. Current is measured at the input of the module.
Figure 29: Input reflected-ripple test setup
COPPER STRIP
To maintain low noise and ripple at the input voltage, it is critical to use low ESR capacitors at the input to the module. Figure 32 shows the input ripple voltage (mVp-p) for various output models using 200 F(2 x100uF) low ESR tantalum capacitor (KEMET p/n: T491D107M016AS, AVX p/n: TAJD107M106R, or equivalent) in parallel with 47 F ceramic capacitor (TDK p/n:C5750X7R1C476M or equivalent). Figure 33 shows much lower input voltage ripple when input capacitance is increased to 400 F (4 x 100 F) tantalum capacitors in parallel with 94 F (2 x 47 F) ceramic capacitor. The input capacitance should be able to handle an AC ripple current of at least:
Vo
1uF 10uF SCOPE tantalum ceramic Resistive Load
Irms = Iout
Input Ripple Voltage (mVp-p) 350 300 250 200 150 100 50 0 0
GND
Vout Vout 1 - Vin Vin
Arms
Note: Use a 10F tantalum and 1F capacitor. Scope measurement should be made using a BNC cable.
Figure 30: Peak-peak output noise and startup transient measurement test setup.
CONTACT AND DISTRIBUTION LOSSES
5.0Vin 3.3Vin 1 2 Output Voltage (Vdc) 3 4
VI II SUPPLY Vin
Vo Io Vo LOAD
GND
CONTACT RESISTANCE
Figure 32: Input voltage ripple for various output models, IO = 10 A (CIN = 2x100 F tantalum // 47 F ceramic)
Input Ripple Voltage (mVp-p) 200 150 100 50 0 0 1 2 Output Voltage (Vdc) 3 4 5.0Vin 3.3Vin
Figure 31: Output voltage and efficiency measurement test setup
Note: All measurements are taken at the module terminals. When the module is not soldered (via socket), place Kelvin connections at module terminals to avoid measurement errors due to contact resistance.
=(
Vo x Io ) x 100 % Vi x Ii
Figure 33: Input voltage ripple for various output models, IO = 10 A (CIN = 4x100 F tantalum // 2x47 F ceramic)
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DESIGN CONSIDERATIONS (CON.)
The power module should be connected to a low ac-impedance input source. Highly inductive source impedances can affect the stability of the module. An input capacitance must be placed close to the modules input pins to filter ripple current and ensure module stability in the presence of inductive traces that supply the input voltage to the module.
FEATURES DESCRIPTIONS
Remote On/Off
The DNM/DNL series power modules have an On/Off pin for remote On/Off operation. Both positive and negative On/Off logic options are available in the DNM/DNL series power modules. For positive logic module, connect an open collector (NPN) transistor or open drain (N channel) MOSFET between the On/Off pin and the GND pin (see figure 34). Positive logic On/Off signal turns the module ON during the logic high and turns the module OFF during the logic low. When the positive On/Off function is not used, leave the pin floating or tie to Vin (module will be On). For negative logic module, the On/Off pin is pulled high with an external pull-up resistor (see figure 35). Negative logic On/Off signal turns the module OFF during logic high and turns the module ON during logic low. If the negative On/Off function is not used, leave the pin floating or tie to GND. (module will be On)
Vin
Safety Considerations
For safety-agency approval the power module must be installed in compliance with the spacing and separation requirements of the end-use safety agency standards. For the converter output to be considered meeting the requirements of safety extra-low voltage (SELV), the input must meet SELV requirements. The power module has extra-low voltage (ELV) outputs when all inputs are ELV. The input to these units is to be provided with a maximum 15A time-delay fuse in the ungrounded lead.
Vo
ION/OFF
On/Off
RL
GND
Figure 34: Positive remote On/Off implementation
Vin
Rpull-up
ION/OFF
Vo
On/Off
RL
GND
Figure 35: Negative remote On/Off implementation
Over-Current Protection
To provide protection in an output over load fault condition, the unit is equipped with internal over-current protection. When the over-current protection is triggered, the unit enters hiccup mode. The units operate normally once the fault condition is removed.
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FEATURES DESCRIPTIONS (CON.)
Over-Temperature Protection
The over-temperature protection consists of circuitry that provides protection from thermal damage. If the temperature exceeds the over-temperature threshold the module will shut down. The module will try to restart after shutdown. If the over-temperature condition still exists during restart, the module will shut down again. This restart trial will continue until the temperature is within specification
Vtrim = 0.7 - 0.1698 x (Vo - 0.7525)
For example, to program the output voltage of a DNL module to 3.3 Vdc, Vtrim is calculated as follows
Vtrim = 0.7 - 0.1698 x (3.3 - 0.7525) = 0.267V
Vo
RLoad TRIM Rtrim GND
Remote Sense
The DNM/DNL provide Vo remote sensing to achieve proper regulation at the load points and reduce effects of distribution losses on output line. In the event of an open remote sense line, the module shall maintain local sense regulation through an internal resistor. The module shall correct for a total of 0.5V of loss. The remote sense line impedance shall be < 10.
Distribution Losses
Vin Vo
Figure 37: Circuit configuration for programming output voltage using an external resistor
Vo
Vtrim TRIM GND +
_
RLoad
Distribution Losses
Figure 38: Circuit Configuration for programming output voltage using external voltage source
RL
Sense
GND
Distribution
Figure 36: Effective circuit configuration for remote sense operation
Distribution L
Table 1 provides Rtrim values required for some common output voltages, while Table 2 provides value of external voltage source, Vtrim, for the same common output voltages. By using a 1% tolerance trim resistor, set point tolerance of 2% can be achieved as specified in the electrical specification. Table 1
Vo(V) 0.7525 1.2 1.5 1.8 2.5 3.3 Rtrim(K) Open 41.97 23.08 15.00 6.95 3.16
Output Voltage Programming
The output voltage of the DNM/DNL can be programmed to any voltage between 0.75Vdc and 3.3Vdc by connecting one resistor (shown as Rtrim in Figure 37) between the TRIM and GND pins of the module. Without this external resistor, the output voltage of the module is 0.7525 Vdc. To calculate the value of the resistor Rtrim for a particular output voltage Vo, please use the following equation:
21070 Rtrim = - 5110 Vo - 0.7525
For example, to program the output voltage of the DNL module to 1.8Vdc, Rtrim is calculated as follows:
Table 2
Vo(V) 0.7525 1.2 1.5 1.8 2.5 3.3 Vtrim(V) Open 0.624 0.573 0.522 0.403 0.267
21070 Rtrim = - 5110 = 15K 1.8 - 0.7525
DNL can also be programmed by apply a voltage between the TRIM and GND pins (Figure 38). The following equation can be used to determine the value of Vtrim needed for a desired output voltage Vo: DS_DNM04SIP10_05292006
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FEATURE DESCRIPTIONS (CON.)
The amount of power delivered by the module is the voltage at the output terminals multiplied by the output current. When using the trim feature, the output voltage of the module can be increased, which at the same output current would increase the power output of the module. Care should be taken to ensure that the maximum output power of the module must not exceed the maximum rated power (Vo.set x Io.max P max). The DNL family has 3 different option codes for TRACK function. Option code A: the output voltage TRACK characteristic can be achieved when the output voltage of PS2 follows the output voltage of PS1 on a volt-to-volt basis. (Figure 41) Option code B: No TRACK function Option code C: Implementation of advanced power tracking techniques is based on connecting the power good signal or selecting proper value for external resistor R1 (Figure 40 to Figure 43).
Voltage Margining
Output voltage margining can be implemented in the DNL modules by connecting a resistor, R margin-up, from the Trim pin to the ground pin for margining-up the output voltage and by connecting a resistor, Rmargin-down, from the Trim pin to the output pin for margining-down. Figure 39 shows the circuit configuration for output voltage margining. If unused, leave the trim pin unconnected. A calculation tool is available from the evaluation procedure which computes the values of R margin-up and Rmargin-down for a specific output voltage and margin percentage.
Vin Vo
Rmargin-down Q1
PS1 PS2
PS1 PS2
Figure 40: Sequential
PS1
PS1
PS2
PS2
On/Off Trim
Rmargin-up Rtrim Q2
GND
Figure 41: Simultaneous
Figure 39: Circuit configuration for output voltage margining
Voltage Tracking
The DNM/DNL family was designed for applications that have output voltage tracking requirements during power-up and power-down. The devices have a TRACK pin to implement three types of tracking method: sequential, ratio-metric and simultaneous. TRACK simplifies the task of supply voltage tracking in a power system by enabling modules to track each other, or any external voltage, during power-up and power-down. By connecting multiple modules together, customers can get multiple modules to track their output voltages to the voltage applied on the TRACK pin. The DNL family has 3 different option codes for TRACK function
PS1 PS2 -V
PS1 PS2
Figure 42: Ratio-metric
PS1 -V PS2
PS1 PS2
Figure 43: Ratio-metric
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FEATURE DESCRIPTIONS (CON.)
Sequential
Sequential start-up (Figure 40) is implemented by connecting the power good pin of PS1 to the TRACK pin of PS2 with a resistor-capacitor (RC) circuit. Suggest to use 1F ceramic capacitor and 2K resistor here. Besides, this configuration requires PS1 to have a power good function.
PS1
Vin
Ratio-Metric
Ratio-metric is implemented by selecting the resistor values of the voltage divider on the TRACK pin. To simplify the tracking design, set initial value of R2 equal to 20K at internal circuit and adjust resistor R1 for the different tracking method. The circuit diagram of Ratio-Metric is the same as Simultaneous when VoPS2 tracks the VoPS1. For Ratio-Metric applications that need the outputs of PS1 and PS2 go to the regulation set point at the same time (Figure 43), use the following equation (1) to calculate the value of resistor R1, set V=Voset,PS1-Voset,PS2 and V will be negative.
R1 = [(Voset ,PS 2 + V ) - Vref ] * 20K --------------(1) Vref
PS2
Vin
VoPS1
PWRGD
VoPS2
TRACK
ENABLE
R
ENABLE
C
Simultaneous
Simultaneous tracking (Figure 41) is implemented by using a voltage divider around the TRACK pin. The objective is to minimize the voltage difference between the power supply outputs during power up and down. For type A (DNX0A0XXXX A), the simultaneous tracking can be accomplished by connecting VoPS1 to the TRACK pin of PS2 where the voltage divider is inside the PS2.
PS1
Vin
Note: 1. Vref =0.4xVoset,PS2 2. V is the maximum difference of voltage between PS1 and PS2 supply voltage. For Ratio-Metric applications that need the PS2 supply voltage rises first at power up and falls second at power down (Figure 42), use the following equation (2) to calculate the value of resistor R1, set V0.4xVoset,PS2 and V will be negative.
R1 = [(Vo set , ps 2 - V ) - Vref ] Vref * 20 K ------------------(2)
PS2
Vin
VoPS1 TRACK
VoPS2
ENABLE
ENABLE
For type C (DNX0A0XXXX C), the simultaneous tracking can be accomplished by putting R1 equal to 30.1K through VoPS1 to the TRACK pin of PS2.
PS1
Vin
Note: 1. Vref =0.4xVoset,PS2 V is defined as the voltage difference between VoPS1 and VoPS2 when VoPS2 reaches its rated voltage.
PS2
Vin
VoPS1
30.1K
VoPS2
R1 TRACK R2
ENABLE
ENABLE
20K
To Tracking circuit
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THERMAL CONSIDERATIONS
Thermal management is an important part of the system design. To ensure proper, reliable operation, sufficient cooling of the power module is needed over the entire temperature range of the module. Convection cooling is usually the dominant mode of heat transfer. Hence, the choice of equipment to characterize the thermal performance of the power module is a wind tunnel.
Thermal Testing Setup
Delta's DC/DC power modules are characterized in heated vertical wind tunnels that simulate the thermal environments encountered in most electronics equipment. This type of equipment commonly uses vertically mounted circuit cards in cabinet racks in which the power modules are mounted. The following figure shows the wind tunnel characterization setup. The power module is mounted on a test PWB and is vertically positioned within the wind tunnel. The height of this fan duct is constantly kept at 25.4mm (1'').
Thermal Derating
Heat can be removed by increasing airflow over the module. To enhance system reliability, the power module should always be operated below the maximum operating temperature. If the temperature exceeds the maximum module temperature, reliability of the unit may be affected.
FACING PWB PWB MODULE
AIR VELOCITY AND AMBIENT TEMPERATURE MEASURED BELOW THE MODULE
AIR FLOW
50.8 (2.0")
12.7 (0.5") 25.4 (1.0") Note: Wind Tunnel Test Setup Figure Dimensions are in millimeters and (Inches)
Figure 44: Wind tunnel test setup
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THERMAL CURVES
12
Output Current(A)
DNM04S0A0R10(Standard) Output Current vs. Ambient Temperature and Air Velocity @ Vin = 3.3V, Vo = 2.5V (Either Orientation)
10
Natural Convection
8
6
4
2
0 60 65 70 75 80 85 Ambient Temperature ()
Figure 45: Temperature measurement location * The allowed maximum hot spot temperature is defined at 125
DNM04S0A0R10(Standard) Output Current vs. Ambient Temperature and Air Velocity @ Vin = 5V, Vo = 3.3V (Either Orientation)
Figure 48: DNM04S0A0R10 (Standard) Output current vs. ambient temperature and air velocity@Vin=5V, Vo=2.5V(Either Orientation)
12 Output Current(A)
12
Output Current(A)
DNM04S0A0R10(Standard) Output Current vs. Ambient Temperature and Air Velocity @ Vin = 3.3V, Vo = 0.75V (Either Orientation)
10
Natural Convection
8
10
Natural Convection
8
6
6
4
4
2
2
0 60 65 70 75 80 85 Ambient Temperature ()
0 60 65 70 75 80 85 Ambient Temperature ()
Figure 46: DNM04S0A0R10 (Standard) Output current vs. ambient temperature and air velocity@Vin=5V, Vo=3.3V(Either Orientation)
DNM04S0A0R10(Standard) Output Current vs. Ambient Temperature and Air Velocity @ Vin = 5.0V, Vo = 0.75V (Either Orientation)
Figure 49: DNM04S0A0R10 (Standard) Output current vs. ambient temperature and air velocity@ Vin=5V, Vo=0.75V(Either Orientation)
12
Output Current(A)
10
Natural Convection
8
6
4
2
0 60 65 70 75 80 85 Ambient Temperature ()
Figure 47: DNM04S0A0R10(Standard) Output current vs. ambient temperature and air velocity@Vin=5V, Vo=0.75V(Either Orientation)
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MECHANICAL DRAWING
SMD PACKAGE (OPTIONAL) SIP PACKAGE
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PART NUMBERING SYSTEM
DNM
Product Series
DNL - 16A DNM - 10A DNS - 6A
04
S
0A0
Output Voltage
0A0 Programmable
R
Package Type
R - SIP S - SMD
10
Output Current
10 - 10A
P
On/Off logic
N- negative P- positive
F
A
Option Code
Numbers of Input Voltage Outputs
04 - 2.8~5.5V 12 - 9~14V S - Single
F- RoHS 6/6 (Lead Free)
A - Standard Function: Sequencing B - No tracking pin C - Tracking feature
MODEL LIST
Model Name
DNM04S0A0R10PFA DNM04S0A0S10PFA
Packaging
SIP SMD
Input Voltage
2.8 ~ 5.5Vdc 2.8 ~ 5.5Vdc
Output Voltage
0.75 V~ 3.3Vdc 0.75 V~ 3.3Vdc
Output Current
10A 10A
Efficiency 5.0Vin, 100% load
96.0% (3.3V) 96.0% (3.3V)
CONTACT: www.delta.com.tw/dcdc
USA: Telephone: East Coast: (888) 335 8201 West Coast: (888) 335 8208 Fax: (978) 656 3964 Email: DCDC@delta-corp.com Europe: Phone: +41 31 998 53 11 Fax: +41 31 998 53 53 Email: DCDC@delta-es.com Asia & the rest of world: Telephone: +886 3 4526107 ext 6220 Fax: +886 3 4513485 Email: DCDC@delta.com.tw
WARRANTY
Delta offers a two (2) year limited warranty. Complete warranty information is listed on our web site or is available upon request from Delta. Information furnished by Delta is believed to be accurate and reliable. However, no responsibility is assumed by Delta for its use, nor for any infringements of patents or other rights of third parties, which may result from its use. No license is granted by implication or otherwise under any patent or patent rights of Delta. Delta reserves the right to revise these specifications at any time, without notice.
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