HW050FG Lineage Power, HW050FG Datasheet
HW050FG
Specifications of HW050FG
Related parts for HW050FG
HW050FG Summary of contents
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... Data Sheet April 2008 HW050AF and HW050FG Power Modules: dc-dc Converters Vdc Input, 5.0 and 3.3 Vdc or 3.3 and 2.5 Vdc Dual Output The HW050 Dual-Output Power Modules use advanced surface-mount technology and deliver high-quality, efficient, and compact dc-dc conversion. Applications ...
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... Symbol Min Typ — — I, max — — — — — 10 — — 60 See EMC Consideration section. April 2008 Max Unit 80 Vdc 100 V 85* °C 125 °C 1500 Vdc Max Unit 75 Vdc 2 1 — mAp-p — dB Lineage Power ...
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... I < the modules may exceed O O, min output ripple specifications.) Note: The maximum combined output current must not exceed 12 A for HW050AF for HW050FG. Output Current-limit Inception ( load on other output O O, nom for HW050AF, and 4 A load on other output ...
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... Min Typ Max — 40 — 10 — — Min Typ Max 2,000,000 — — 60 (2.1) Lineage Power April 2008 Unit mV µs mV µs Unit nF MΩ Unit hours g (oz.) ...
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... Remote On/Off Signal Interface ( open collector or equivalent I compatible; signal referenced to V terminal; see Figure 22 and Feature Descriptions.): HW050AF1 Preferred Logic: Logic Low—Module On Logic High—Module Off HW050FG Optional Logic: Logic Low—Module Off Logic High—Module On Logic Low 1.0 mA on/off 0.0 V on/off ...
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... Figure 2. Typical HW050FG1 Input Characteristics at Room Temperature (V) I 8-2669 (F) Figure 3. Typical HW050AF1 Converter Efficiency vs. Output Current at Room Temperature (V) I 8-2670 (F) Figure 4. Typical HW050FG1 Converter Efficiency vs. Output Current at Room Temperature April 2008 TOTAL OUTPUT CURRENT TOTAL OUTPUT CURRENT, Io (A) Lineage Power 12 16 ...
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... Lineage Power Figure 7. Typical HW050FG1 Output Ripple Voltage 3.3 V Output at Room Temperature and 8-2673 ( Different Input Voltage O O max Figure 8. Typical HW050FG1 Output Ripple Voltage 2 Room Temperature and Different Input Voltage O O max 8-2674 (F) TIME μs/div) 8-2593 (F) TIME μs/div) 8-2594 (F) 7 ...
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... Note: Tested without any load capacitance. Adding load capacitance will improve performance. Figure 10. Typical HW050AF1 Transient Response = 50 Room O2, max April 2008 TIME, t (100 μs/div) to Step Decrease in Load O2, max O1 O1, max Room Temperature and 48 V Input (Waveform Averaged to Eliminate Ripple Component.) Lineage Power 8-3086 ( ...
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... Figure 11. Typical HW050AF1 Transient Response to Step Increase in Load O1, max O2 Room Temperature and 48 V Input (Waveform Averaged to Eliminate Ripple Component.) Lineage Power 8-3087 (F) Note: Tested without any load capacitance. Adding load capacitance will improve performance. Figure 12. Typical HW050AF1 Transient Response ...
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... I O1, max O2 Room Temperature and 48 V Input (Waveform Averaged to Eliminate Ripple Component 8-3089 (F) Note: Tested without any load capacitance. Adding load capacitance will improve performance. Figure 14. Typical HW050FG1 Transient Response = 50 O2, max April 2008 TIME, t (100 μs/div) to Step Decrease in Load 50 25 ...
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... I O1, max O2 Room Temperature and 48 V Input (Waveform Averaged to Eliminate Ripple Component.) Lineage Power 8-3091 (F) Note: Tested without any load capacitance. Adding load capacitance will improve performance. Figure 16. Typical HW050FG1 Transient Response = 50 O2, max TIME, t (100 μs/div) to Step Increase in Load 50 75 ...
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... Characteristic Curves (continued) TIME ms/div) Note: T ested without any load capacitance. Figure 17. Typical Start-Up from Remote On/Off HW050AF max TIME ms/div) Note: T ested without any load capacitance. Figure 18. Typical Start-Up from Remote On/Off HW050FG max 12 12 Test Configurations TO OSCILLOSCOPE V O1 BATTERY V O2 ...
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... The power module has extra-low voltage (ELV) outputs when all inputs are ELV. Lineage Power For input voltages exceeding 60 Vdc but less than or equal to 75 Vdc, these converters have been evaluated to the applicable requirements of BASIC INSULATION ...
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... Figure 25. Resistor Selection for Decreased V (+) V (+) I O ON/OFF TRIM R ADJ-DOWN V (+) COM I Output Voltage CHANGE IN OUTPUT VOLTAGE (Δ%) Output Voltage for CHANGE IN OUTPUT VOLTAGE (Δ%) Output Voltage for V O2 Lineage Power April 2008 R LOAD 8-2798 (F) 25 8-2680 (F) 25 8-2681 (F) ...
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... The test results for these configurations are displayed in Figure 27. Note: The following voltage range restrictions apply: 8-3093 (F) HW050AF: For HW050FG: For For Note: The voltage between the V nals must not exceed the minimum output over- voltage shutdown voltage as indicated in the Feature Specifications table. ...
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... Two orientations are shown in Figure 30 and Figure 31. .2 (8.0) AIRFLOW 76.2 (3.0) 4 (1.0) Note: Dimensions are in millimeters and (inches). Figure 29. Thermal Test Setup April 2008 AIR VELOCITY AND AMBIENT TEMPERATUR MEASURE HE 8-2603 (F) Lineage Power ...
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... Proper cooling can be verified by measuring the power modules temperature at the top center of the case of the body of Q18 as shown in Figure 31. The temperature at this location should not exceed 100 °C at full power. The output power of the module should not exceed the rated power. Lineage Power (continued) Figure 30. Best Orientation (Top View) THERMOCOUPLE ...
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... Figure 35. Power Derating vs. Local Ambient Tem- For example, if the HW050FG1 dissipates 7 heat load and 48 V input voltage, the minimum airflow for best module orientation °C environ- ment is 1 m/s (200 ft./min.). 8-2600 (F) Keep in mind that these derating curves are approxi- mations of the ambient temperatures and airflows required to keep the power module temperature below its maximum rating ...
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... For assistance with designing for EMC compliance, please refer to the FLTR100V10 data sheet (DS99-294EPS). Layout Considerations Copper paths must not be routed beneath the power module mounting inserts. For additional layout guidelines, refer to FLTR100V10 data sheet (DS99-294EPS). Lineage Power V (+) 2x 33 μF 0.47 μF ...
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... CONDUCTIVE SPACER IN 4 PLACES 90.2 (3.55 PLACES April 2008 V TRIM O1 V TRIM 35.56 (1.400 PITCH = 5.08 (0.200) COM NONACCUMULATIVE COM 8.5 (0.335) MATING PWB MAX SURFACE 1.05 (0.041) 0.99 (0.039 3.2 TYP 5 (0.13) 4 3.2 TYP (0.13) 8-2799 (F) Lineage Power ...
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... Table 3. Pin Function Pin Function 1 V (+) I – ON/OFF 4 V TRIM TRIM COM 9 COM Lineage Power 85.87 (3.38 93.98 (3.70) 99.1 (3.90) 3.2 (0.100) SQUARE STANDOFF, 4 PLACES 4 PITCHES OF 5.08 NONACCUMULATIVE 20.32 (0.8) 51.40 (2.02) 15.24 (0.6) 3 PITCHES OF 5.08 NONACCUMULATIVE 8-2607 (F) 21 ...
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... Negative remote on/off logic 22 Output Device Power Code 53.2 W HW050AF 53.2 W HW050AF1 53.2 W HW050AF6 49.6 W HW050FG 49.6 W HW050FG1 49.6 W HW050FG6 49.6 W HW050FG8 49.6 W HW050FG-B Device Code Suffix April 2008 Comcode 108365610 TBD 108958240 108341710 TBD 108891680 108934233 108840190 Lineage Power ...
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... April 2008 Vdc Input, 5.0 and 3.3 Vdc or 3.3 and 2.5 Vdc Dual Output Notes Lineage Power 23 ...
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... Lineage Power reserves the right to make changes to the produc t(s) or information contained herein without notice. No liability is ass umed as a res ult of their use or applic ation. No rights under any patent acc ompany the sale of any oduct information. ...