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Applied Formal Verification

FPGA Authority

Member

This course transforms how engineers prove correctness in FPGA and SoC designs. Moving beyond simulation, this training immerses the participant in a complete formal flow. It starts with SystemVerilog Assertions and progresses through bounded model checking, k-induction, and IC3/PDR allowing the student to mathematically validate design behavior, uncover corner case bugs, and verify intent with precision. The course has guided labs using real world tools like Questa Forma. The student gains practical experience writing properties, modeling environments with assumptions, and analyzing counterexamples to quickly isolate root causes. It is designed for engineers who need rigorous, scalable verification strategies. This course shows students how to integrate formal methods into production workflows for maximum impact. Participants learn to apply assume‑guarantee reasoning, manage state space complexity, and build reusable property libraries that accelerate future ...

This course transforms how engineers prove correctness in FPGA and SoC designs. Moving beyond simulation, this training immerses the participant in a complete formal flow. It starts with SystemVerilog Assertions and progresses through bounded model checking, k-induction, and IC3/PDR allowing the student to mathematically validate design behavior, uncover corner case bugs, and verify intent with precision. The course has guided labs using real world tools like Questa Forma. The student gains practical experience writing properties, modeling environments with assumptions, and analyzing counterexamples to quickly isolate root causes. It is designed for engineers who need rigorous, scalable verification strategies. This course shows students how to integrate formal methods into production workflows for maximum impact. Participants learn to apply assume‑guarantee reasoning, manage state space complexity, and build reusable property libraries that accelerate future projects. The course also covers RTL to gate equivalence checking and formal signoff techniques, equipping the student with the confidence to deploy formal verification across the entire development lifecycle.

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Offering Brief

Offering Brief

Device Family Agilex™ 3 FPGA C-Series, Agilex™ 5 FPGA D-Series, Agilex™ 5 FPGA E-Series, Agilex™ 7 FPGA F-Series, Agilex™ 7 FPGA I-Series, Agilex™ 7 FPGA M-Series, Agilex™ 9 FPGA Direct RF-Series, Arria® 10 Bare Die, Arria® 10 GT FPGA, Arria® 10 GX FPGA, Arria® 10 SX FPGA, Arria® V GT FPGA, Arria® V GX FPGA, Arria® V GZ FPGA, Arria® V ST FPGA, Arria® V SX FPGA, Cyclone® 10 GX FPGA, Cyclone® 10 LP FPGA, Cyclone® IV E FPGA, Cyclone® IV GX FPGA, Cyclone® V E FPGA, Cyclone® V GT FPGA, Cyclone® V GX FPGA, Cyclone® V SE FPGA, Cyclone® V ST FPGA, Cyclone® V SX FPGA, HardCopy™ II ASIC Devices, HardCopy™ III ASIC Devices, MAX® 10 FPGA, Mustang Mesa, Stratix® 10 AX FPGA, Stratix® 10 Bare Die, Stratix® 10 GX FPGA, Stratix® 10 SX FPGA, Stratix® 10 TX FPGA, Stratix® IV GX FPGA
Offering Status Production
Prerequisites FPGA Authority "Advanced SoC Verification", prior exposure to a formal tool (Questa Formal or other), familiarity with functional safety standards (ISO 26262, DO-254) and working knowledge of digital design fundamentals..
Languages English
Target Audience Experienced design and verification engineers, formal verification specialists, and FPGA/SoC engineers who want to integrate formal methods into their verification strategy and achieve higher assurance in complex digital designs.
Duration 2 Days
Hands On Lab True
OS Support Windows,Linux

PDF of slides, lab manual and lab files where applicable

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