RFIC Design Methodology: Functional Verification
William Dunham
Abstract
William Dunham
Abstract
Full-chip functional verification for RF-A/MS (analog mixed-signal) applications is not only new as a "design methodology process" to some design organizations; but, is fast becoming a "must have" verification as a final tape-out simulation sign-off. Today's wireless industry, due to tight schedule demands and short product life-cycles, requires that a RFIC development group deliver "1stpass functional silicon." Then, when functional RFIC silicon is produced, minor design changes (minimal mask-layer changes) needed to meet performance specifications can be accommodated within a wireless product schedule.
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Full-chip functional verification for RF-A/MS (analog mixed-signal) applications is not only new as a "design methodology process" to some design organizations; but, is fast becoming a "must have" verification as a final tape-out simulation sign-off. Today's wireless industry, due to tight schedule demands and short product life-cycles, requires that a RFIC development group deliver "1stpass functional silicon." Then, when functional RFIC silicon is produced, minor design changes (minimal mask-layer changes) needed to meet performance specifications can be accommodated within a wireless product schedule.
Key concepts: RFIC, Schedule, Computer science, Integrated circuit design, Product (mathematics), Wireless, Process (computing), Chip