Future of MEMS: Market and Technologies Perspective Dr. Eric MOUNIER, Yole Développement

Transcription

1 Future of MEMS: Market and Technologies Perspective Dr. Eric MOUNIER, Yole Développement

2 Content MEMS Markets MEMS Challenges Future Perspectives Conclusions

3 MARKET

4 MEMS Markets (US$M) $ $ $ $ $ $5 000 Others Oscillators RF MEMS Microdispensers (microfluidics) Microfluidics for IVD Microfluidics for research Other optical MEMS Projection systems Micro displays PIR & thermopiles Microbolometers Inertial combos Digital compass Gyroscopes Accelerometers Microphones 16,1% 52,7% 15,5% 16,3% 23,1% 34,8% 10,0% 17,7% 57,8% 23,5% 12,5% 28,4% -5,1% -3,7% -3,4% 13,2% Pressure sensors 7,7% $ InkJet heads 1,1% TOTAL $10 662M $11 723M $13 017M $14 450M $16 249M $18 192M $20 818M $24 014M

5 MEMS Markets by Application (US$M) $M $30 000M $25 000M $20 000M $15 000M $10 000M $5 000M $0M Telecom $190M $212M $241M $266M $297M $336M $379M $373M Medical $1 662M $2 004M $2 452M $3 000M $3 697M $4 600M $5 859M $7 250M Industrial $951M $1 037M $1 132M $1 293M $1 468M $1 667M $1 897M $2 192M Defense $261M $267M $278M $296M $316M $332M $353M $376M Consumer $4 892M $5 449M $5 930M $6 447M $7 115M $7 719M $8 702M $10 032M Automotive $2 599M $2 639M $2 862M $3 015M $3 213M $3 388M $3 474M $3 634M Aeronautics $107M $115M $124M $133M $142M $151M $154M $156M CAGR 9,9% 23,9% 13,3% 5,9% 11,2% 5,5% 5,2%

6 Increasing Functionalities for Mobile Phones & Wearable Electronics E.g. Proliferation of functions using inertial sensors Market introduction With additional sensors and sensor fusion With gyroscopes With compass With accelerometers Market acceptance Context awareness Indoor navigation Activity monitoring Barometer In-air signature & authentication Pointing High resolution camera stabilization Menu navigation & advanced user interface 3D gaming Location-based service Map navigation & GPS assistance Pedometer Gaming Portrait/Landscape switching, Tap/double tap and shake control

7 Emerging MEMS Value Proposition in Mobile Devices High volume Better communication performance Sound quality Small production Sampling / R&D DelfMEMS switch WiSpry antenna tuner on cell phone board Sand 9 MEMS Oscillator Audio Pixels micro speaker Knowles microphones Lemoptix Scanning mirror Sensirion humidity sensor Improved visual experience Navigation & environment sensing polight MEMS autofocus Freescale pressure sensor Mirasol display Lilliputian Systems Nectar fuel cell STMicroelectronics 9-axis Increased battery lifetime TI temperature sensor versus a competing thermopile sensor MµOptics thermal imager NextInput SoftTouch interface New tactile interface Infrared sensing

8 Key MEMS Players Better communication performance Sound quality DelfMEMS switch Wispry antenna tuner on cell phone board Sand 9 MEMS Oscillator AudioPixel microspeaker Knowles microphones Scanning mirror from Lemoptix Sensirion Humidity Sensor Improved visual experience Navigation & environment sensing Polight MEMS autofocus Mirasol display Freescale pressure sensor STM 9-axis Nectar fuel cell Increased battery lifetime New tactile interface TI temperature sensor versus a competing thermopile sensor Thermal imager MuOptics NextInput SoftTouch interface Infrared sensing

9 CHALLENGES

10 Consumer MEMS challenges New MEMS design Above IC SIZE REDUCTION 3D integration New wafer bonding Closer integration with processing Software Better performance MORE INTELLIGENCE Sensor fusion Stronger RF specifications Data discrimination Mobility Connectivity everywhere E-Health LBS Social networking NEW APPLICATIONS Internet of Things High volume production Shared fab infrastructure PRICE PRESSURE Fabless model MEMS across multiple markets

11 Evolution : Maintaining growth is a challenge for consumer applications

12 The «Nessie curve» law : higher volume but higher step! Today: Nessie - like commercialization curve In the past: «stairs»-shaped commercialization curve Time Time

13 MEMS take time! RF MEMS R&D Product evolution Cost reduction Commercialization Microphones R&D Product evolution Cost reduction Commercialization Average R&D time: 10 years Average product evolution: 8 years Average cost evolution: 10 years From R&D to commercialization: 27 years! Micro valves Gas sensors Gyros R&D R&D R&D Product evolution Product evolution Product evolution Cost reduction Cost reduction Cost reduction Commercialization Commercialization Commercialization Bio MEMS R&D Product evolution Cost reduction Commercialization DLP for pico projection R&D Product evolution Cost reduction Commercialization Micro relays R&D Product evolution Cost reduction Commercialization Accelerometers R&D Product evolution Cost reduction Commercialization IJ Heads R&D Product evolution Cost reduction Commercialization Oscillators R&D Product evolution Cost reduction Commercialization Pressure sensors R&D Product evolution Cost reduction Commercialization

14 MEMS are NOT IC! Bell labs, US, 1947! Intel 22 nm technology Sandia s micromachine (MEMS) 1. No standard process (CMOS, BiCMOS ) 2. No p-n junction for MEMS And NO roadmap so what?

15 New approaches to overcome MEMS challenges SIZE + COST REDUCTION Maximum optimization Breakthrough Design: e.g. moving from 3 dies to one die Single 3A gyro design (STM, Invensense) Single 3A accelero + 3A gyro structure (STM, Invensense) Manufacturing processes improvements TSV via last (STM) TSV via first (STM) TSV in ASIC (Bosch) 3D MEMS with TSV (mcube) Eutectic Au-Si bonding (Maxim) Eutectic Al-Ge bonding (Bosch, Invensense) CMOS-MEMS (Invensense) TSV platform (Teledyne Dalsa) New detection principles BAW resonant sensor (Qualté) M&NEMS (Tronic s) NEMS gas chromatography (APIX) Suspended Microchannel Resonator (Affinity Biosensors) Quartz Crystal Microbalance (Q-Sense)

16 Accelerometer MEMS size evolution 12 MEMS Size (mm²) ST LIS3L02AE All are 3-axis accelerometers US$ values are Production Cost AUTO CONSUMER $ $ >$0.1 5 ST LIS331DLH BOSCH SMI540 n.a VTI CMA3000 BOSCH BMA180 Kionix KXTE9 ST LIS3DH ADI ADXL346 BOSCH BMA250 / BMC ST LIS302DL ST LSM330 ST LSM303D ADI ADXL MCube BI3L BOSCH BMA

17 Evolution of STMicroelectronics MEMS Gyros GK10A 2009 (L3G4200D, LSM330DL) GK12B 2010 (LSM330DLC) GK14A 2011 (L3G3250A, LSM330D) GK18A 2012 (L3GD20H) Die ref. Package size (mm3) MEMS die size Sensing area GK10A 4.4x7.5x1.1 for 6-axis 9.24mm² (3.08mm x 3.00mm) 3.74mm² (~40% of die area) GK12B 4.0x5.0x1.1 for 6-axis 7.81mm² (2.74mm x 2.85mm) 3.20mm² (~41% of die area) GK14A 3.0x5.5x1.0 for 6-axis 6.25mm² (2.45mm x 2.55mm) 2.43mm² (~39% of die area) GK18A 3.0x3.0x1.0 for 3-axis 5.57mm² (2.40mm x 2.32mm) 2.38mm² (~43% of die area) Significant size reduction has been achieved with a smaller sensing area.

18 TSV are coming - Different TSV architectures (STM, mcube, Bosch) Copper TSV in ASIC Trench TSV STMicro MEMS accelerometer chip with TSV (Courtesy of System Plus Consulting) Tungsten TSV connecting MEMS to IC metal layers. mcube MEMS accelerometer chip with TSV (Courtesy of System Plus Consulting) Bosch MEMS accelerometer chip with TSV (Courtesy of System Plus Consulting)

19 PiezoMEMS Applications PZT SBT AlN IJ Heads IR sensors WL auto focus Inertial-Gyros RF switches Ultrasonic Others

20 Cost (US$) Size (mm²) From micro machines to MEMS to NEMS From micro machines to MEMS FIRST INTEGRATED SENSOR Ex: SA20 Sensonor for Airbag systems. CAPACITIVE COMB DRIVE BECOMES DOMINANT Ex: ST, Bosch MEMS to NEMS NEMS PACKAGING / INTEGRATION AS ENABLING TECHNOLOGY Ex: SiTime, ST, Bosch MIX MEMS (thick layer) & NEMS (gauge) FOR MIN AREA & IMPROVED PERF. Ex: Tronics DISRUPTIVE APPROACHES Ex: EPFL, CNRS, CEA Leti, Caltech, Berkeley

21 WHAT S NEXT?

22 THE OF Sensors & Applications for IoT Legend: Sensor SENSORS OF Level of demand INTERNET THINGS Building Automation Healthcare & Life science Consumer & Home automation Transportation Light (IR, visible) Contact Pressure Bio Sensors Gyroscope Temperature Gyroscope Pressure Temperature Temperature Inertial Accelero Chemical Accelero Temperature Chemical (CO2) Chemical Magneto Magneto Accelero Light (IR, X-Ray) Pressure Chemical Industrial Environment Security & Public Safety Retail & Logistics Pressure Hall Effect Chemical Humidity Gyro Light (IR,XRay,THz) Light (IR/Optical) Magneto Light (IR,Optical) Accelero Temperature Accelero Pressure Chemical Light (IR, visible) Magneto Temperature Temperature Pressure Chemical Chemical

23 Market value ($M) IoT, the next wave? Market Value Repartition in IoT Structure ($M) 450, , , , , , , ,000 50,000 0 $400B Cloud Hardware (incl. Sensors) will top at $70B in 2018 then will lower because of price pressure! CAGR Hardware 9,458 17,895 34,426 58,295 69,995 67,200 54,555 54,785 47,005 43,172 46,338 17% Cloud ,113 4,097 5,867 10,060 14,895 26,984 36,003 46,931 58,851 63% Data 2,156 4,848 10,631 21,004 31,338 56,914 82, , , , ,149 64% Total 12,045 23,713 47,170 83, , , , , , , ,337 42% In 2024, total market value from IoT should reach $400B with a global CAGR rate of 42%. Market value from data processing could be almost x3 bigger than cloud and hardware values combined.

24 CONCLUSIONS

25 Conclusions

26 THANK YOU. QUESTIONS?