IHP Technology Roadmap Update and Future

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  • 1. IHP TechnologyRoadmap Update and FutureResearch Topics
    • Bernd Tillack
  • IHP
  • Im Technologiepark 25
  • 15236 Frankfurt (Oder )

MOS-AK Meeting, April 2-3, 2009 2. IHP Frankfurt (Oder)

  • Founded 1983
  • 1991 Member of the Leibniz Association
  • 1999: I nnovations forH igh
  • P erformance microelectronics 1000 m class 1 clean room,
  • staff: ~ 250 co-workers
  • 2009: Leibniz Institute
  • 4 core competencies: Materials research,
  • Si process technology,
  • RF circuit design,
  • wireless communication systems
  • Funding 2008
  • Institutional funds: 16 million
  • Third-party funds: 11.5 million
  • ERDF funds: 12.7 million ( European Regional Development Fund)

3. Core Competencies

  • Silicon based high-frequency technologies, circuits and systems for wireless and broadband communication
  • System solutions for wireless and broadband communication
  • Prototypes of mixed-signal ICs;system-on-chip
  • RF circuit design
  • Analog circuits in the higher GHz-range (frontends, converter..)
  • Technology platform for wireless and broadband communication
  • Performance increasing and functionality extending modules for standard
  • CMOS
  • New materials for microelectronics technology
  • incl. integration (e.g. SiGe:C, high-K, nanostructures)

4.

  • Technology Vision
  • Future Research Topics
  • Summary

Outline 5. Technology Vision

  • Develop
  • High Value Added Technologies
  • for Wireless and Broadband Applications

6. Technology Vision CMOS Baseline Technology Modular extension of CMOS technologies SiGe:C HBT LDMOS Flash Memories Passive Devices 7. Technology Roadmap for MPW September 2008 * Qual. on customer request Development Early access Qualified 8. IHPs Technology Focus: More than Moore Source: ITRS Roadmap 2005 IHP: 0.13 m BiCMOS THz Devices Si Photonics MEMS 9. Technology Vision Future Research Topics CMOS Baseline Technology Modular extension of CMOS technologies Diversification SiGe:C HBT LDMOS Flash Memories Passive Devices THz Devices HBTs 10. THZ HBTs 11.

  • Timeframe
    • 3-year (2/08-1/11)IP project of 7 thFramework Program
  • Target
    • 0.5 THz SiGe Heterojunction Bipolar Transistor
    • For the future development of communication, imaging and radar applications
  • Consortium
    • 15 partners from industry and academia in 5 countries
      • ST, Infineon, IMEC, IHP,XMOD ,GWT-TUD, ENSEIRB, Bunderwehr Uni. Munich, Univ. of Neaples, Univ. of Linz, Univ. of Siegen, Univ. of Wuppertal
  • Budget
  • Total14.75 million
    • 9.7 million founded by European Commission
  • For more information see www.dotfive.eu

DOTFIVE Project 12. DOTFIVE Project Today's state-of-the-art SiGe HBTs achieve roughly a maximum operating frequency of 300 GHz at room temperature.With Dotfive Europe is getting ahead of the RF ITRS roadmap: (www.dotfive.eu) 13. Generations of IHPs High-Speed HBTs

  • Record gate delay of 2.5 ps
  • Digital circuit speed benchmarked by ring oscillator gate delay
  • Fastest circuit speed achieved in any Si IC technology

IEDM 2008: SiGe HBT module with 2.5 ps gate delay 14. Technology Vision Future Research Topics CMOS Baseline Technology Modular extension of CMOS technologies Diversification SiGe:C HBT RF LDMOS Flash Memories Passive Devices THz Devices HBTs MEMS Integration 15. MEMS integration in BiCMOS

  • Goal:
    • Design and fabrication of dedicated MEMS components for Radio Frequency ICs
    • Integration of MEMS processing technique to BiCMOS
  • Major Applications Areas
    • RFMEMS: High-Q passives, RFMEMS Switches
    • Deep-Silicon Etching; Substrate etching under passives, TSVs,Sensors

RFMEMS Switches Si Deep-Silicon Etching, TSV Etched Region Sensors 16. Technology Vision Future Research Topics CMOS Baseline Technology Modular extension of CMOS technologies Diversification SiGe:C HBT LDMOS Flash Memories Passive Devices THz Devices HBTs? MEMS Integration Optical function Si Photonics 17. Silicon Photonics ( Source : Intel)

  • Photonics electronics functional integration on CMOS (HELIOS)
  • EU FP7
  • SiLight BMBF

18. Si Photonics: Waveguide Integration

  • Waveguide preparation in IHP technology
  • High slope & minimal roughness
  • Excellent uniformuty
  • Small waveguide losses ( reduced capacitances + low silicide resistance + enhanced SIC E B C 100nm 100nm E B C 24. CMOS/BiCMOS MEMS Integration BiCMOS + Microviscosimeter (Minimal invasive blood sugar sensor ):Electronics + wireless communication + sensor functionCantilever 25. RFMEMS Switches in BiCMOS Main application areas: Multiband circuits and 60-70 GHz applications Reliability is the main concern