Introducing SiC Schottky Diode QFN Package

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Transcription:

Introducing SiC Schottky Diode QFN Package 2012

Agenda Introduction to Cree Power Schottky Diode QFN Package Benefits in LED and Lighting g Applications Reference Design Test Data Copyright 2012, Cree, Inc. pg. 2

Cree businesses Cree SiC/GaN Materials Copyright 2011, Cree, Inc. pg. 3

Power and RF Components World s leading manufacturer of silicon carbide-based diodes for power control and management. A leading supplier of SiC and GaN RF devices for wireless communications Solar Inverters Broadband Amplifiers Secure Military Communications Power Factor Correction Industrial Motor Drivers Cellular Infrastructure Copyright 2012, Cree, Inc. pg. 4

Revolutionizing the power semiconductors 2002 First 600V commercial SiC Schottky diode 2006 First 1200V SiC Schottky diode 2007 Cree converts to 100mm wafers for Power 2009 Fraunhoefer Inst. Shows world s best solar inverter efficiency, >98% with Cree SiC devices 2010 First 1700V Schottky diodes Cree demonstrates first 150mm SiC wafer 2011 First SiC MOSFET 80mΩ, 1200V Copyright 2011, Cree, Inc. pg. 5

Cree Has Shipped 200 GVA of SiC Diodes SiC diodes have significant penetration in applications where efficiency is essential Servers fro data centers Telecom power supplies Solar inverters SiC MOSFETs enable even greater efficiency improvements 120,000 100,000 80,000 60,000000 40,000 20,000 0 Mega-VA of Cree SiC JBS Diodes 2005 2006 2007 2008 2009 2010 2011 Copyright 2012, Cree, Inc.

Cree SiC Diodes: Proven Quality and Reliability Cree SiC Diode Field Failure Rate Data since Jan. 2004 Product Device Hours FIT (fails/billion hrs) CSDxxx60 205,000,000,000 0.16 C3Dxxx60 81,000,000,000 0.09 C2Dxx120 46,000,000,000 1.35 Total 332,000,000,000 0.31 More than 10X lower than typical silicon Typical FIT rate for Si PiN diodes is ~ 5 300 billion device hours in the field with an industry- leading FIT rate of only 0.31 Copyright 2012, Cree, Inc. pg. 7

New QFN Package - C3D1P7060Q Key Electrical Parameters Forward Rated Current: 1.7A @ T C < 150 C Reverse Blocking Voltage: 600V Forward Voltage: 1.7V @ 100 C Total Charge Q C : 5.6 nc Package Smallest SiC package in the market 3.3 x 3.3 x 1mm QFN Surface Mount Benefits Higher driver efficiency = Higher Lm/W Lower thermals for diode, surrounding components Smaller footprint Copyright 2012, Cree, Inc. pg. 8

Why Cree Schottky Diodes? Cree C3D1P7060Q in Light Bulb applications Cree s new C3D1P7060Q well suited for new Non- Isolated lighting applications Industry's smallest SiC package well suited for space constrained application such as Lighting Improved Switching behavior reduces thermals and stress on MOSFET Copyright 2011, Cree, Inc. pg. 9

Isolated Vs Non-Isolated LED Lighting Isolated Single Stage Flyback Schottky diode Non-Isolated Low-Side Buck Schottky diode Transformer for isolation Single Stage Flyback Typical Eff. 80% Inductor with no isolation Low Side Buck Typical Eff. 85% Freewheeling Schottky output diode Freewheeling diode during MOSFET Diode blocking DC voltage off time <200V, Si Schottky diodes ok Diode blocking DC voltage >400V, Si Schottky limit to 200V Copyright 2012, Cree, Inc. pg. 10

Why use a SiC Schottky Diode? Reverse Current during Diode off and MOS on MOSFET ON Simplified Circuit operation MOSFET Q is turned on, current ramps up through inductor and LED string MOSFET Q is turned off and the freewheeling diode D conducts the current the current through the inductor and LED string Any reverse recover current from diode will flow into the MOSFET. Copyright 2012, Cree, Inc. pg. 11

7W Non-Isolated LED Reference design 55mmx28mmx13mm Specification Items Min Typical Max Input AC Voltage 180Vac 220Vac 264Vac Output Voltage Tolerance 20Vdc 26Vdc 28Vdc Output current per string 250mA 270mA 285mA Output current tolerance +-5% Efficiency with Cree SiC 82% Power Factor 0.8 0.85 Controller Dimming LED LM3445 Phase cutting dimmable Cree XPE 10pcs [100mA to 400mA] Copyright 2012, Cree, Inc. pg. 12

7W Cree Reference Design - Schematic Driver Spec Input: 240Vac Output: t 25Vdc, 270mA (7W) 40W Incandescent Replacement Switching Freq: 125kHz Driver IC: TI/National LM3445 Copyright 2012, Cree, Inc. pg. 13

7W Cree Reference Design - Test Data Efficiency Comparison ~4% efficiency i improvement Copyright 2012, Cree, Inc. pg. 14

7W Cree Reference Design - Test Data Efficiency Comparison at different load conditions Copyright 2012, Cree, Inc. pg. 15

7W Cree Reference Design - Test Data (cont.) MOSFET and Diode Temperature Comparison 12 C cooler on Diode 17 C cooler on MOSFET Copyright 2012, Cree, Inc. pg. 16

7W Cree Reference Design - Test Data (cont.) MOSFET Comparison Brown: V ds MOSFET X: 200V/div; Y: 5uS/div Blue: I ds MOSFET X: 500mA/div; Y: 5uS/div Cree I ds Max 698mA ON Semi I ds Max 1.32A Lower MOSFET stress since less reverse recovery current from diode Copyright 2012, Cree, Inc. pg. 17

Test Data Summary C3D1P7060Q Schottky diode enables highest efficiency solutions 1. CCM with low-side BUCK converter 2. High output current LED>300mA C3D1P7060Q Schottky diode brings system benefits 1. Small 3.3 x 3.3 mm footprint saves space 2. Efficiency improves 4-5% 3. Thermal reduction 15-20C can shrink heatsink,,prolong life of caps 4. Reduce MOSFET current rating (lower cost part) Copyright 2012, Cree, Inc. pg. 18

Conclusion C3D1P7060Q Schottky diode enables higher Lm/W 1. Best fit topology CCM with low-side BUCK converter High output current LED>300mA System benefits 1. Space savings/higher density Small 3.3 x 3.3 mm footprint 2. Efficiency improves 2-5% 3. Improved reliability SiC more reliable than Si Thermal reduction 15-20C can shrink heatsink, prolong life of caps Reduce MOSFET current rating (lower cost part) Copyright 2012, Cree, Inc. pg. 19