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Design Passed (No Optimization) Design Results Power Supply Input Var Value Units VACMIN 160 V VACMAX 295 V FL 50 Hz TC Z ŋ IAVG Input Rectifier VMIN VMAX 2,11 0,70 79,0 0,08 1N4001 ms 185,2 417,2 V V Diode Conduction Time Loss Allocation Factor Efficiency Estimate Average Diode Bridge Current Recommended Input Diodes % A EMI Filter Var Value Units CIN1 6,80 µF CIN2 6,80 µF LCM 6,00 mH Device Variables Var Value Device Description Minimum Input AC Voltage Maximum Input AC Voltage Line Frequency Minimum DC Input Voltage Maximum DC Input Voltage Description Input Bulk Capacitor Input Bulk Capacitor Common Mode Choke Unit s TNY276P N+1 11,50 658,91 W V 11,43 V I2F_MIN 24,06 I2F_MAX 31,01 FS_AT_ILIMM IN 137029 A²kH z A²kH z Hz KP 0,92 KP_TRANSIE NT CBP ILIMITMIN 0,77 PO VDRAIN Estimated VDS 10,00 0,42 µF A Description PI Device Name (Manual Input) Total Output Power Actual Estimated Drain Voltage On state Drain to Source Voltage Minimum I2F Maximum I2F Switching Frequency at Current Limit Minimum Continuous/Discontin uous Operating Ratio Transient Ripple to Peak Current Ratio BYPASS pin capacitor Current Limit Minimum ILIMITMAX 0,50 A Current Limit Maximum IRMS 0,16 A Primary RMS Current (at VMIN) P_NO_LOAD 150 mW Estimated No Load Input Power DMAX 0,37 Maximum Duty Cycle RLS 7,5 MΩ Line sense resistor Clamp Components Var Value Units Description DB FR106 Recommended Blocking Diode VCLAMP 200,00 V Estimated average clamping voltage VRZ P6KE200A Recommended Zener Clamp Clamp 0,47 W Clamp Dissipation Loss Transformer Construction Parameters Var Value Units Description Core Type ETD29/16/10 Core Type (Manual Input) Core NC-2H Core Material Material (Nicera) or Equivalent Bobbin Generic, 7 Bobbin Reference Reference pri. + 7 sec. Bobbin Horizontal Bobbin type Orientation Primary 4 Number of Primary pins used Pins Secondary 2 Number of Secondary pins used Pins LPmin 1141 µH Minimum Primary Inductance NP 61,7 Calculated Primary Winding Total Number of Turns NSM 7 Secondary Main Number of Turns CMA 634 Cmils/A Primary Winding Current Capacity VOR 100,00 V Reflected Output Voltage BW 19,40 mm Bobbin Winding Width ML 0,00 mm Safety Margin on Left Width MR 0,00 mm Safety Margin on Right Width FF 25 % Actual Transformer Fit Factor. 100% signifies fully utilized winding window AE 76,00 mm² Core Cross Sectional Area ALG 300 nH/T² Gapped Core Effective Inductance BM 1289 Gauss Maximum Flux Density BAC 493 Gauss AC Flux Density for Core Loss LG 0,273 mm Estimated Gap Length L_LKG 37,7 µH Primary Leakage Inductance LSEC 15 nH Secondary Trace Inductance Primary Winding Section 1 Var Value Units Description NP1 62 Rounded (Integer) Number of Primary winding turns in the first section of primary Wire 30 AWG Wire size of primary winding Size Winding Single Primary winding number of parallel wire strands Type (x1) L 0,94 Primary Number of Layers DC 0,03 W Primary DC Losses Copper Loss PIN_S PIN_T Output 1 Var 2 1 Starting pin(s) for first section of primary winding Termination pin(s) for first section of primary winding VO 10,50 Unit s V IO 1,00 A VOUT_ACTU AL 10,50 V NS 7 Wire Size Winding Type L_S_OUT DC Copper Loss Start Pin(s) Termination Pin(s) VD PIVS ISP ISRMS DO 27 Bifilar (x2) 0,40 0,10 CO IRIPPLE Expected Lifetime LPF Value AWG W 9 8 Secondary Output Winding Layers Secondary DC Losses Starting pin(s) for Output winding Termination pin(s) for Output winding 0,85 58 3,37 1,62 SB110 0 470 x 1 1,27 37075 2,2 10 CPF 100 680 Feedback Circuit Var Value RF1 1000,00 RF2 226,0 Rated 9,1 Voltage Zener 5,0 Test Current Descripti on Output Voltage Output Current Actual Output Voltage Secondary Number of Turns Wire size of secondary winding Output winding number of parallel strands V V A A Output Winding Diode Forward Voltage Drop Output Rectifier Maximum Peak Inverse Voltage Peak Secondary Current Secondary RMS Current Recommended Output Diode µF Output Capacitor A hr µH Output Capacitor RMS Ripple Current Expected Lifetime of Output Capacitor. See Information section for detail Post Filter Inductor µF Post Filter Capacitor Units Ω Ω V Description Zener Biasing resistor Zener Compensation resistor Zener Rated Voltage mA Zener Test Current The regulation and tolerances do not account for thermal drifting and component tolerance of the output diode forward voltage drop and voltage drops across the LC post filter. The actual voltage values are estimated at full load only. Please verify cross regulation performance on the bench. Errors, Warnings, Information Description To increase lifetime of LED driver applications select capacitor with high ripple current rating. Such capacitors experience smaller temperature rise. Fix Show me Ref. # For every 10 degrees drop in operating temperature the capacitor lifetime approximately doubles. 617