• DocumentCode
    2692312
  • Title

    Through-silicon-via technology for 3D integration

  • Author

    Dukovic, J. ; Ramaswami, S. ; Pamarthy, S. ; Yalamanchili, R. ; Rajagopalan, N. ; Sapre, K. ; Cao, Z. ; Ritzdorf, T. ; Wang, Y. ; Eaton, B. ; Ding, R. ; Hernandez, M. ; Naik, M. ; Mao, D. ; Tseng, J. ; Cui, D. ; Mori, G. ; Fulmer, P. ; Sirajuddin, K. ; Hu

  • Author_Institution
    Silicon Syst. Group, Appl. Mater. Inc., Santa Clara, CA, USA
  • fYear
    2010
  • fDate
    16-19 May 2010
  • Firstpage
    1
  • Lastpage
    2
  • Abstract
    Major efforts are currently underway throughout the IC industry to develop the capability to integrate device chips by stacking them vertically and using through-silicon vias (TSVs). The resulting interconnect density, bandwidth, and compactness achievable by TSV technology exceed what is currently possible by other packaging approaches. Market-driven applications of TSV involving memory include multi-chip high-performance DRAM, integration of memory and logic functions for enhanced video on handheld devices, and stacked NAND flash for solid-state drives. High-volume commercial implementation of 3D TSV is imminent but faced by special challenges of design, fabrication, bonding, test, reliability, know-good die, standards, logistics, and overall cost. The main focus of this paper is the unit-process and process-integration technology required for TSV fabrication at the wafer level: deep silicon etching, dielectric via isolation, metallization, metal fill, and chemical-mechanical polishing.
  • Keywords
    DRAM chips; NAND circuits; chemical mechanical polishing; etching; flash memories; integrated circuit interconnections; integrated circuit manufacture; integrated circuit metallisation; integrated circuit packaging; isolation technology; three-dimensional integrated circuits; 3D TSV; 3D integration; IC industry; TSV fabrication; TSV technology; bandwidth; chemical-mechanical polishing; compactness; deep silicon etching; device chips; dielectric via isolation; handheld devices; high-volume commercial implementation; interconnect density; logic functions; market-driven applications; memory integration; metal fill; metallization; multichip high-performance DRAM; packaging approaches; process-integration technology; solid-state drives; stacked NAND flash; through-silicon vias; through-silicon-via technology; wafer level; Bandwidth; Chemical technology; Fabrication; Handheld computers; Logic functions; Packaging; Random access memory; Solid state circuits; Stacking; Through-silicon vias;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Memory Workshop (IMW), 2010 IEEE International
  • Conference_Location
    Seoul
  • Print_ISBN
    978-1-4244-6719-8
  • Electronic_ISBN
    978-1-4244-7668-8
  • Type

    conf

  • DOI
    10.1109/IMW.2010.5488399
  • Filename
    5488399