• DocumentCode
    1010245
  • Title

    Nanoarchitectonics for Heterogeneous Integrated Nanosystems

  • Author

    Wang, Kang L. ; Galatsis, Kosmas ; Ostroumov, Roman ; Khitun, Alexander ; Zhao, Zuoming ; Han, Song

  • Author_Institution
    Univ. of California Los Angeles, Los Angeles
  • Volume
    96
  • Issue
    2
  • fYear
    2008
  • Firstpage
    212
  • Lastpage
    229
  • Abstract
    Based on projections of the International Roadmap for Semiconductors (ITRS), the continued scaling of complementary metal-oxide semiconductor (CMOS) devices will face severe technical challenges. Among the most critical are power dissipation and device-level variabilities that will make circuit design very difficult. Potential device-level solutions that take advantage of new functional materials, self-assembly processes, low dissipation nanoscale devices, and architectures that aim in sustaining Moore´s law beyond the ITRS are discussed in this paper. Two potential paths forward are clear at this point. One path is to continue increasing chip-scale functional throughput by looking at new functional materials at atomic and molecular levels for assembly into new low-power devices with different logic state variables that can better tolerate variabilities. Another distinct approach is to increase chip-scale functionality by exploiting the heterogeneous integration of materials, such as compound semiconductors on silicon as enabled by the unique features in nanoscale epitaxy and self-assembly on a common substrate. This paper will discuss some possible methods forward in maintaining scaled CMOS and going beyond the roadmap.
  • Keywords
    CMOS integrated circuits; integrated circuit design; nanoelectronics; CMOS devices; chip-scale functional throughput; circuit design; complementary metal-oxide semiconductor devices; device-level variabilities; heterogeneous integrated nanosystems; international roadmap for semiconductors; nanoarchitectonics; power dissipation; self-assembly processes; Assembly; Atomic layer deposition; Circuit synthesis; MOS devices; Moore´s Law; Nanoscale devices; Power dissipation; Self-assembly; Semiconductor materials; Throughput; Architectonics; heterogeneous; nanoelectronics; nanosystems;
  • fLanguage
    English
  • Journal_Title
    Proceedings of the IEEE
  • Publisher
    ieee
  • ISSN
    0018-9219
  • Type

    jour

  • DOI
    10.1109/JPROC.2007.911055
  • Filename
    4403894