CSA Catapult Support June 2018
Dr Alastair McGibbon Business Development Manager [email protected] 0777 147 6390
the Catapult will generate economic
growth by making the UK a global
leader in developing and
commercializing new applications for
compound semiconductors
• collaborative R&D facility • design studio • dedicated capitalised lab
space: power, RF, photonics & packaging
• challenge-led programmes • pre-competitive industry
consortia • dedicated project resource
and secondments
• EVM for Power Electronics, RF and Photonics
• supporting services • bespoke CR&D and
commercial opportunities
strategy focused on a collaborative design studio, creation of EVMs and challenge led programmes informed through industry collaboration & detailed prioritisation
Evaluation modules (dev kits)
Wafer £
Die ££
Device £££
System ££££
Applications £££££
EVM
Commission devices from fabs Provide EVMs
EVM Development Approach
• Always with a partner
Modular EVM
Integrated Programme
Market Advantage EVM Disruptive Tech EVM
CS Proving Building Block
Demo CS Proving
Joint Industry Programme
Research Demonstrator
Building Block Demo
Mostly Industry-led, Mostly SiC Mostly Academia-led, Mostly GaN
MOD6 MOD7
Accelerated EVM: GRAND CHALLENGES
MOD3 MOD1
EVM1
MOD2
MOD4
MOD1 MOD2
MOD3
MOD5
EVM1
MOD4 MOD5
EVM1
MOD1 MOD4
MOD2 MOD3
EVM2
MOD3
SUB
MODULES
COMBINE
YR 1
YR 2
REUSE
BENEFITS
• Accelerated development
• De-Risk / test ideas
• Re-use / parallel development
• Earlier engagement with Cos
• Linked to roadmap
• Incremental advances
• System demonstrators
• Combine EVMs
• Reduce barriers of expertise
Opportunity matrix Healthcare Digital economy Energy Transport Defence/security Space
POWER ELECTRONICS
X-ray systems Magnet controllers Proton accelerators
Server farms Energy efficient computing
HV DC, smart grid Transmission and distribution High temp electronics energy storage
More electric aircraft, Electric cars, trains, metro, trams, marine Propulsion, energy recuperation, actuation, hybridisation
Directed energy weapons Marine drives Armoured vehicle drives Autonomous vehicles Dismounted Soldier
Converters Power management Thermal management Energy Storage
RF/MICROWAVE Wearable technology data comms
5G Smart cities
Smart grid comms Industrial heating
Inter-vehicle comms Intra-vehicle comms Automotive RADAR telematics
Phase array (AESA) RADAR, Electronic warfare (EW) Directed energy weapons Antennae Systems Missile guidance Secure Comms
Comms Imaging
PHOTONICS Curative photonics Laser surgery Photo-dynamic therapy OCT Optogenetics Retinal implants
Optical comms Head-up displays Optical and computational interfaces PICs for 400G QT encryption EUV systems
Energy efficient lighting LiFi PV solar power Colour control Power over fibre Laser drilling
IR automotive imaging Anti-collision devices Laser lights Add manufacturing HUD AR systems MOST networks PV solar power
Hyper-spectral imaging Thermal imaging Head up displays: QCL IRCM UAV systems Directed energy RF over fibre Perimeter monitoring
High power to weight ratio photo-voltaics Lasers LIDAR Laser comm constellations Hi-rel PICs
SENSORS Imaging Bio-sensors Radiotherapy Photonic based gas sensors
IoT sensors Face and gesture recognition SPAD array ranging
System monitoring Oil and gas sensing Nuclear sensors
Aero-engine monitoring Autonomous vehicle sensing LIDAR Traffic monitoring
Scanning Remote sensing Nuclear sensors SWIR & MWIR imaging QT navigation
Geographic imaging Environmental sensing Earth live
RF/microwavein digital economy
UK capacity
Mark
et a
ttra
ctiv
ene
ss
Photonics in thedigital economy
Power electronics in
transport
Sensors in health
Powerelectronics in
defense/security
Power electronics
in energy
8
Power Electronics Key Markets
PV solar power Wind power
Grid
EV/HEV traction DC-DC
EV/HEV charging
Motor drives PV solar power DC-DC
Energy Automotive Defence Space Aerospace Consumer Industrial
More electric aircraft Motor drives Welding
UPS
AC adapter Fan / humidifier
PowerelectronicsUK Call to action – building blocks
• Optimisation and integration of passives into power electronic systems
• Improved magnetic and dielectric materials or design for next generation CS systems
• Improved gate, control and current sensing within power semiconductor systems
• Improved models for accurate simulation – including design and multi-physics modelling
• Techniques to predict device and component reliability and life-time performance
• Improved thermal, voltage and EMI design, performance and management
• Innovative packaging techniques, including 3D integration and new materials
• Improved short-circuit system design and fail-safe performance
• Novel systems/ test-beds to accelerate the pull-through of new PE technologies
The Stephenson Challenge: driving the electrification revolution
Proposal: Cross-Sectoral coordination of UK Power Electronics,
Electric Machines and Drives (PEMD)
Objective: UK Manufacture of £5Billion more Motor Drives By 2025
ISCF Wave 3 EOI
Driving future industries Power Electronics, Motors & Drives (PEMD) are essential to next generation technologies:
• All UK cars to be zero carbon by 2040
• New aircraft to be electric / hybridised to meet next phase emissions and noise legislation by 2040
• Renewables (Wind, Wave, Tidal) to form and increasing percentage of energy generation (80% CO2 reduction by 2050)
• High speed rail network to grow to reduce pressure on roads and decrease journey times
The Stephenson Challenge will ensure that our technology, industry and skills are in place to lead the world and create high value jobs, export and sustainability
+ =
Market Opportunity
• Automotive – Auto Council/APC Strategy Paper identified requirement for >2m next generation drives to underpin growth in electric vehicles and replace 2.5M engines produced in the UK as they are phased out
• Aerospace – ‘100MW electrical energy on a plane’ strategy driving the future of a £3.5 trillion export opportunity
• Energy – Renewable energy is expected to grow at CAGR of 11.5%, PEMD is at the core of wind, tidal, wave and hydro-power system development. PEMD is also at the heart of high efficiency Solid State Transformer migration improving grid efficiency, the energy sector is expected to spend £60 billion on power electronics alone over the next 25 years
• Industrial - Power Electronics UK white paper (over 100 UK companies across sectors) identified specific grand challenges in the kW and MW range
• … other examples in Off-Highway, Rail, Marine, other sectors
Delivering Competitive Advantage
Wafer production, device manufacture
CAD, CAE, Electromagnetic Analysis Thermal Analysis, Semiconductor Chip and packaging design, 3D integration of power electronics and motors
Forging, casting, machining, precision stamping, printed circuit board assembly coil winding, bar magnet production
Automation, sensor integration, robotics, connected factories
3 million motor drives worth > £5 billion p.a.
Five levels of the Supply Chain will be developed to deliver competitive advantage to UK manufacturers in key industrial sectors
Faster Lighter
Cheaper Smaller Smarter
Q&R Challenges
Faster Lighter
Cheaper Smaller Smarter
Compounded Reliability!
Needs QFD
Feedback
SiC Examples (this PCIM)
Device: • Multi-physics reliability model construction • Vertical Device: High electric fields in the trench
oxide • Higher defect rate in gate oxide • SiC higher stiffness that Si
System: • Increase in Tj and Vgs can cause significant lifetime
reduction in charger apps. • Lifetime issues in power cycling
Compounded Reliability!
Needs QFD Feedback
Q&R Challenges
Faster Lighter
Cheaper Smaller Smarter
• Physical • Electrical • EMI • Thermal
• Lifetime Testing • Dynamic Test
Wide Bandgap Power Electronics Development Space
Building Blocks Devices Modules Applications
Low Voltage GaN 400V- 1kV GaN <1.2kV SiC >1.2kV SiC Hybrid Other WBGs
<1kW conversion and control 1-50kW conversion and control 50- 500kW Conversion and Control Grid and HV Voltages Uni and Bi-directional DC-DC Wireless Charging
Automotive
Aerospace
Rail
Marine
Defence
Industrial
Energy
Consumer
Space
Agri-Tech
Passives Materials Gate Control & Sensing Modelling & Simulation Reliability & Lifetime Multi-physics design Short Circuit Performance Packaging Test & Measurement
Stephenson Challenge Coverage
Building Blocks Devices Modules Applications
Low Voltage GaN 400V- 1kV GaN <1.2kV SiC >1.2kV SiC Hybrid Other WBGs
<1kW conversion and control 1-50kW conversion and control 50- 500kW Conversion and Control Grid and HV Voltages Uni and Bi-directional DC-DC Wireless Charging
Automotive
Aerospace
Rail
Marine
Defence
Industrial
Energy
Consumer
Space
Agri-Tech
Passives Materials Gate Control & Sensing Modelling & Simulation Reliability & Lifetime Multi-physics design Short Circuit Performance Packaging Test & Measurement
CSAC Ramp-up in Power electronics
• CSAC Ramping up to 50 people by the end of the year
• Capability Now • Modelling & Simulation capability in place • Parametric test and measurement
• From Q4 • Begin full power lab facilitisation
20
Power Electronics Capabilities
Model
Assembly Design
Power device and module prototyping PCB assembly
Hardware in the loop High power AC and DC sources and loads Reliability and EMC testing
Power device electrical and thermal characterisation and modelling Circuit and PCB design/simulation
Advanced power electronic package design
Del
iver
Deliver Deliver
Del
iver
Model
Assemble Design
Test and Evaluate
Deliver Deliver
Del
iver
Deliver
Design
Power electronics capability
Power Device Characterisation (electrical – IV, CV, gate charge)
Power Device Modelling (SiC, GaN)
Circuit simulation & PCB design
System test
Power Device Characterisation (thermal - Structure Function)
Reliability test (Lifetime Testing and Failure Diagnosis)
Keysight B1505A
MicReD 1800A
Keysight IC-CAP Keysight ADS
Temperature shock testing chamber
Temperature and Climate Test Chamber
AC source/load DC source/load
Bench DC source 4kW AC/DC source
Oscilloscope
Waveform generator
Thermal imager
DMM
Anechoic chamber
Hardware in the Loop Electronic
load
Power analyser
Antenna RF generator
Spectrum analyser LISN
HV PSU
Power electronics lab layout
Envi
ron
men
tal
cham
ber
Te
mp
erat
ure
sh
ock
tes
tin
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amb
er
Building the Power Electronics team
Dedicated: • Engineering Manager • Technical Specialist – Automotive • Senior Power Electronics Engineer • Power Electronics Engineer • Student/Graduate Engineer
Shared resources with RF/Microwave and Photonics • Embedded Software Engineer • Mechanical Design Engineer • EMC Engineer • Quality Engineer
Power electronics update
• Strategically • Delivery Partner for the PowerelectronicsUK Roadmap • Delivery Partner for the APC Power Roadmap
• Short term • Developing projects, proposals and EVM ideas now • Open for modelling & test services now
• Stand-alone projects • Projects that underpin the roadmaps – enabling technologies or
demonstrators/evaluation platforms
• Medium Term • Develop cohorts and projects around strategic areas
Dr Alastair McGibbon Business Development Manager [email protected] 0777 147 6390 @4UK_Semis
Thank you