A new era in power electronics with Infineon s CoolGaN

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A new era in power electronics with Infineon s CoolGaN Dr. Gerald Deboy Senior Principal Power Discretes and System Engineering Power management and multimarket division

Infineon will complement each of its leading edge silicon solutions with a wide bandgap technology! TrenchStop to CoolSiC Emitter Gate n - basis (substrate) Si IGBT SiC MOSFET Collector CoolMOS to CoolGaN Si Superjunction GaN HV e-mode lateral HEMT OptiMOS to CoolGaN Si Fieldplate GaN MV e-mode lateral HEMT 2

Agenda 1 2 3 4 5 6 Infineon s wide bandgap strategy Why GaN? Key characteristics of the technology Device characteristics of CoolGaN Reliability first Benefits in selected applications Summary 3

GaN HEMTs are just at the begin of their technology roadmap S G D Unipolar limit: Superjunction limit: Source: W. Saito, I. Omura, T. Ogura, H. Ohashi, "Theoretical limit estimation of lateral wide band-gap semiconductor power-switching device, Solid-State Elec. 48 (2004) 1555 1562 Todays devices are around one order of magnitude away from theoretical limits; lots of improvement potential is still ahead 4

Comparing Q rr of GaN versus Superjunction Virtually zero reverse recovery charge Internal body diode of SJ can be made rugged; Q rr can be reduced by factor 5; snappiness will remain forever 10 A/div GaN HEMT Reverse Recovery Performance Superjunction 5

Wide bandgap power devices enable seamless shifts between hard and soft switching Source: D. Neumayr, D. Bortis, E. Hatipoglu, J. Kolar, G. Deboy, Novel efficiency-optimal frequency modulation for high density converter systems, Proc. IFEEC, June 2017 6

Agenda 1 2 3 4 5 6 Infineon s wide bandgap strategy Why GaN? Key characteristics of the technology Device characteristics of CoolGaN Reliability first Benefits in selected applications Summary 7

CoolGaN : emode-gan-hemt on Silicon substrate with p-gate injection technology Si substrate Forward characteristic of gate electrode Threshold Vth and 2DEG concentration (RDSon*A) can be adjusted independently 8

Rdson vs Ids characteristic: CoolGaN 190 mω T C = 25C T C = 125C Rdson (Ohms) 0,24 0,22 0,20 0,18 0,16 0,48 Rated on-state resistance 0,44 27uA 91uA 286uA 975uA 2.975mA 9.74mA Rdson (Ohms) 0,40 0,36 0,32 0,28 26uA 91uA 296uA 983uA 2.92mA 9.65mA 0,14 0 5 10 15 20 25 30 I D (A) 19.84mA 0,24 0 5 10 15 20 I D (A) 19.84mA Rated max pulsed drain current Rated max pulsed drain current No significant current saturation effects: specified RDSon is reachable up to rated pulsed drain currents 9

Specific GaN EiceDRIVER addresses safety and ease-of-use concerns Classic RC-driver New 1EDx-G1 GaN Driver VCC out Q 1 I ss VDD in VDD out SLR Config Q 2 IN Q 4bidi Q 3 R on R off C on IN 1EDF-G1 One Channel Galvanic Isolated High Speed CoolGaN TM Gate Driver OUT A OUT B GND out GND in GND out True three-state driver, stable negative supply voltage Safe operation of CoolGaN switches 1EDx-G1 benefits 2x shorter propagation delay and accuracy Better efficiency Integrated galvanic isolation, only 1 positive voltage needed Superior BOM and power density 2018-11-13 Copyright Infineon Technologies AG 2018. All rights reserved. Infineon Proprietary 10

Agenda 1 2 3 4 5 Infineon s wide bandgap strategy Why GaN? Key characteristics of the technology Reliability first Benefits in selected applications Summary 11

Infineon's CoolGaN is normally-off with an intrinsically rugged gate structure V gs V g, peak = +/-10 V I gs I pk,pos =2.8 A 12

Dynamic R DS(on) : How to test? As implicated by it s name dynamic R DS(on) testing is strongly dependent on timing as trapped charges relax with time Competition is typically giving dyn. R DS(on) data measured 2.5µs after turn-on for 400 V For hundreds of khz up to MHz operation this is not enough Infineon CoolGaN E.g. 40% dyn. R DS(on) turns a 35mΩ device into a 50mΩ one Infineon s CoolGaN has been characterized down to 100 ns for a full 600 V blocking with no dyn. R DS(on) increase We have 100% test coverage with 600 V / 700 ns 13

CoolGaN 600 V technology reliability dynamic R DS(on) - Application level test example Dyn. R DS(on) measured real time during hard switching! At full rate. Percent by which R DS(on) shifts 70% 60% 50% 40% 30% 20% 10% 0% -10% Percent dynamic R DS(on) shift versus applied voltage Infineon measurement: some competitor parts show increase in dyn. R DS(on) above 400V Published data for Competitor listed as 0% up to 400V (no data > 400V) 100 200 300 400 500 600 Applied voltage (Volts) Competitor T Infineon Data taken at 25 C, with 700 ns delay after device turns on negligible shift at full rated voltage True application measurements taken a few hundreds ns after hard switching device turn on! No impacts on datasheet! 14

HTRB modelling shows superior intrinsic quality of CoolGaN! Lifetime model JEDEC testing 3 x 77 parts, 480 V, 1000 h CoolGaN Life time = 55 years Lifetime requirement: < 1 fit for 15 years at 480 V, 125 C (100 ppm) The acceleration model is developed for voltage and temperature The predicted lifetime is ~55 years @ 480 V and 125 C, which exceeds typical use cases by factor 3 3 times higher safety margin from Infineon's criteria 15

From application-related reliability testing to testing reliability in the real application Full power supply reliability testing procedure performed by one of our lead customers According to IPC9592 Rev.B (Requirements for power conversion devices for the computer and telecommunications industries) Standard duration 1000 h at maximum allowed ambient temperature of 50 C The GaN PFC stage is stressed at high input voltage, 264 V AC and at low input voltage, 200 V AC HTOB testing was done on 150 rectifiers 2000 h extended test passed without failures! HTOB system of our customer for up to 48 rectifiers/converters, up to 144 kw 16

Agenda 1 2 3 4 5 Infineon s wide bandgap strategy Why GaN? Key characteristics of the technology Reliability first Benefits in selected applications Summary 17

CoolGaN 600 V + GaN EiceDRIVER Featured applications Server Datacenters Highest efficiency > 97.5% Cost savings (OPEX, CAPEX, BOM) Telecom Highest efficiency > 97.5% Cost savings (OPEX, CAPEX, BOM) Charger Adapter Breakthrough in power density for small and lightweight, highly efficient solutions Wireless charging CoolGaN 600 V - low Q G and C OSS enable high efficiency at higher power levels GaN enables optimal tuning in class E designs especially for solutions > 30W CoolGaN can be used in many other applications and as a general switch * * For more information, please visit www.infineon.com/gan. 18

Optimization of a high-density 3 kw/12v server power supply System: 1-Φ, 12V, 3kW, Server power supply Topology: Totem-Pole PFC & Half-bridge LLC PFC Modulation: CCM for GaN; TCM for TP Si Optimization point: 50% load, 230Vrms, 12Vout 19

GaN High-Density Optimization Results Optimization Results for 50% Load, 230V in, 12V out The Results include Control Losses, Cooling System, 20% Air between Components, Casing, Connectors, PCB, Manufacturing Cost Highest Efficiency Highest Power Density 20

Topology Selection for 3kW/12V Server Supply GaN Totem-Pole PFC with CCM and Large Current Ripple provides Natural ZVS over a Large Part of the Mains Period Low R DS,on Si Superjunction in Return Path Input Current at 50% Load Proposed Design Typical Designs GaN Half-Bridge LLC with Matrix Transformer to Share Output Current Among Multiple Si Sync. Rect. Stages Average Current 176-265V RMS 21

Selected Converter Design (80W/inch 3 ) Main Design Parameters Topology 35mOhm 600V GaN emode 17mOhm SJ 3D CAD Layout Calculated Efficiencies W=68mm L=210mm H=44mm 22

Outlook on Advanced DC/DC Converters Collaboration with ETH Zürich to develop High Density GaN DC/DC Converter PCB Integrated Snake Matrix Transformer for Smallest Volume and Lowest Manufacturing Cost without Circulating Output Currents Advanced Phase-Shift and Frequency Control dep. on DC-Link Voltage and Output Power Topology Matrix Transformer Transformer Measurements Source: Knabben et al, New PCB Winding "Snake-Core" Matrix Transformer for Ultra-Compact Wide DC Input Voltage Range Hybrid B+DCM Resonant Server Power Supply, PEAC, 2018 23

Infineon GaN Our differentiating core competencies Benchmark in manufacturing GaN manufacturing embedded into high volume Si lines in Villach Typical Infineon quality standards are applied Dual source offering with partner Panasonic Application-dedicated products GaN product portfolio optimized for specific application requirements Application specific reliability testing GaN products are offered in SMD packages Unique power technology portfolio Expertise in all leading power technologies (Si, SiC, GaN) Extensive GaN knowhow from both Infineon and International Rectifier Large GaN patent portfolio Extensive system expertise Extensive application / system understanding Global design support Focus on system performance /cost ratio 24