• DocumentCode
    629166
  • Title

    System scaling and collaborative open innovation

  • Author

    Sun, Jack Y.-C

  • Author_Institution
    R&D, Taiwan Semicond. Manuf. Co. (TSMC), Hsinchu, Taiwan
  • fYear
    2013
  • fDate
    11-13 June 2013
  • Abstract
    Giga trends in mobile computing, converged devices, cloud, and many other emerging applications continue to drive the growth of Si-based nano-electronics industry. A holistic approach must be taken to meet the demanding system requirements such as energy efficiency, integration density, information throughput, specialty features, and form factor. A new scaling paradigm is proposed, i.e., system scaling, by combining silicon wafer-based chip scaling and copper Through-Si-Via (TSV) 3D chip stacking to provide the ultimate energy-efficient scaling for system integration. Technically, chip scaling (Moore´s Law) can be extended to provide high-density and energy-efficient transistors and Cu/low-k on-chip interconnect operated at low supply voltages for the increasing use of multiple processor cores and parallelism. In addition, Cu-TSV 3D chip stacking provides a new system integration platform to heterogeneously integrate CMOS processors, memories, and specialty functions such as sensors, actuators, and other user interfaces. It enables better system partitioning for each system component to be optimized and integrated closely together for additional power saving, higher performance, equivalent density scaling, and form factor reduction. Many challenges are ahead and there are tremendous opportunities for industry-wide collaborative open innovation in this new era of system scaling to enable the continued growth of Si-based nano-electronic industry.
  • Keywords
    CMOS integrated circuits; copper; energy conservation; integrated circuit interconnections; low-k dielectric thin films; low-power electronics; nanoelectronics; silicon; three-dimensional integrated circuits; transistor circuits; CMOS processor; Cu; Moore law; Si; TSV 3D chip stacking; collaborative open innovation; copper through-Si-via; density scaling; energy efficiency; energy-efficient scaling; energy-efficient transistor; form factor reduction; giga trends; high-density transistor; information throughput; integration density; low supply voltage; low-k on-chip interconnect; memories; mobile computing; nanoelectronics industry; parallelism; power saving; processor core; silicon wafer-based chip scaling; system component; system integration platform; system partitioning; system requirements; system scaling; Logic gates; Metals; Silicon; Stacking; System-on-chip; Through-silicon vias; Transistors; 3DIC; CMOS; VLSI; computing power; scaling; system optimization;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    VLSI Technology (VLSIT), 2013 Symposium on
  • Conference_Location
    Kyoto
  • ISSN
    0743-1562
  • Print_ISBN
    978-1-4673-5226-0
  • Type

    conf

  • Filename
    6576665