Author_Institution :
California Technol. & Manuf., Intel Corp., Santa Clara, CA, USA
Abstract :
Summary form only given. Logic product density and performance trends have continued to follow the course predicted by Moore´s Law. To support the trends in the future and build logic products approaching one billion or more transistors before the end of the decade, several challenges must be met. These challenges include: 1) maintaining transistor/interconnect feature scaling, 2) the increasing power density dilemma, 3) increasing relative difficulty of 2-D feature resolution and general critical dimension control, 4) identifying cost effective solutions to increasing process and design database complexity, and 5), improving general performance and quality predictability in the face of the growing control, complexity and predictability issues. The trend in transistor scaling can be maintained while addressing the power density issue with new transistor structures, design approaches, and product architectures (e.g. high-k, metal gate, etc.). Items 3 to 5 are the focus of this work and are also strongly inter-related. The general 2-D patterning and resolution control problems will require several solution approaches both through design and technology e.g. reduce design degrees of freedom, use of simpler arrayed structures, improved uniformity, improved tools, etc. The data base complexity/cost problem will require solutions likely to involve use of improved data structure, improved use of hierarchy, and improved software and hardware solutions. Performance assessment, predictability and quality assessment will benefit from solutions to the control and complexity issues noted above. In addition, new design techniques/tools as well as improved process characterization models and methods can address the general performance/quality assessment challenge.
Keywords :
circuit CAD; circuit complexity; integrated circuit design; integrated logic circuits; logic CAD; technological forecasting; 2-D feature resolution; 2-D patterning; cost effective solutions; critical dimension control; design database complexity; increasing power density; logic product; performance challenges; predictability; process complexity; process variation phenomena; quality assessment; transistor scaling; Costs; Data structures; High K dielectric materials; High-K gate dielectrics; Logic; Moore´s Law; Process design; Product design; Quality assessment; Spatial databases;