Shared Context Is A Force Multiplier

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C.A.D. Initiatives Specification Gap: e.g., What will be the critical design problem? GTX GTX models include canned optimizations = canned design space explorations Development and Delivery Gap: e.g., How to deploy DT better/faster? Bookshelf Measurement Gap: e.g., Did achievable design improve? Metrics Definition of success (Next up: Education? Measuring research process?) Shared Context Is A Force Multiplier 1

Living Roadmap Network, telecommunications, embedded computing systems Synchronous buses 1Gbps, differential signaling 10Gbps Network, optical interfaces have multipliers of 10x, 4x (faster than device density,speed) Train wrecks: chip-to to-package and system-level interconnects (materials, signaling standards, implementation costs), power, design TAT, cost Appropriate metrics are non-traditional :: density, cost, performance, power, and RAS (reliability, availability, and serviceability) Density: connections and bandwidth per cm (2,3), watts/m 3 Performance: How many interconnect/cm cm (2,3)? How long are traces? What types of signals, and what voltage levels, will meet signaling rate needs? Cost: decompositions (mother, switch/routing, control, port interface, application), and dimensions (per (ge( ge,, FC, DWDM, )) port, Gbps,, MIPS, $ ) RAS: unintentionally / intentionally (for func) ) dropped bits/packets dropped, failure rates Many models to build and integrate: SOC integration (what is integratable,, at what cost), analog circuits/dt (how badly do these fail to scale), design quality and cost, power (circuits, multi-vdd Vdd/Vt/toxtox / biasing, GALS/GSLA, ), manufacturing interface (variability, NRE, layout densities, ) GTX within DT: What are the key design technology needs? Application roadmap (= ITRS System Drivers Chapter = complement to ITRS ORTCs) Application product ROI = value/cost (= attributes not yet well-defined/ defined/-measured) Impacts of Design Technology (== Metrics initiative) 2

Bookshelf Goal is to produce component-based, application-specific design methodologies and flows How will the methodology space be explored, and flows prototyped? Where are the reusable components? Open-source (understandable, reusable), malleable DT components Centered on back end, completely missing AMS capabilities, Common data model and access mechanism (and repository?) OpenAccess source code release Design Drivers very close to vertical benchmarks (= existing Bookshelf slot) Recent overtures from IBM, LSI w.r.t. OpenAccess,, working vertical benchmarks Potential work with Fabrics on snap-on flows, etc. KEY: Common DT Infrastructure Other: synergy with education in VLSI design, design technology 3

Metrics Goal: measure and improve Systems Processes Relevant system attributes / metrics System value System cost (design, production) From system ROI, have a platform from which to evaluate technology ROI Technology cost (research, advanced research, development, ) Supporting technologies / infrastructures (data mining, parameter identification, model fitting) Other: Research process What is the impact of FCRP? (# newspaper articles? # papers? Coauthorship statistics? Survey results? Scientific health of (Design/Test, Interconnect, etc.) communities?) == part of original Measure and Improve goals 4

Living ITRS-2001 in GTX First time ever: consistency checks, unified assumptions for power, frequency, die size, density, performance Creates linkages between Design, Assembly/Packaging, Defect Reduction, Process Integration / Devices / Structures, Test, Overall Roadmap Technology Characteristics, Models and studies are linked with ITRS-2001 distribution Improves flexibility, quality, transparency of roadmapping Allows semiconductor industry to better allocate R&D investment: Who should solve a given red brick wall? 2002 goal: Increase fraction of ITRS captured within GTX 5