How to Verify Rad-Tolerant Mitigation Circuitry
Requires Flash Player.
Once you’ve implemented rad-tolerant circuitry into your FPGA design, how do you verify that functionality is preserved? And how do you verify that the mitigation scheme actually works? Attend this session to learn about various methodologies and tool flows to implement rad-tolerant circuitry, automatically verify that design functionality is preserved, and verify the effectiveness of the mitigation schemes.
Duration: 24:30
Products: FormalPro, Precision Hi-Rel
View On-demand Web Seminar (Opens in New Window/External URL)
Details
Overview
Once you’ve implemented rad-tolerant circuitry into your FPGA design, how do you verify that functionality is preserved? And how do you verify that the mitigation scheme actually works? Attend this session to learn about various methodologies and tool flows to implement rad-tolerant circuitry, automatically verify that design functionality is preserved, and verify the effectiveness of the mitigation schemes.
What You Will Learn
- Considerations when verifying rad-tolerant circuitry
- How to automatically mitigate a circuit and verify design functionality
- Methodologies to verify effectiveness of mitigation schemes
About the Presenter
Roger Do
Roger Do is Synthesis Product Specialist at Mentor Graphics. He has over 16 years of FPGA experience, including previous roles in corporate and field applications and product marketing with Texas Instruments, Lucent Technologies, and Lattice Semiconductor. Roger holds a B.S. in Electrical Engineering from Texas A&M University.
Who Should View
- FPGA Designers of high reliability or aerospace applications
- Design Managers
- Program Managers
Related Resources
Multimedia
Complementing Rad-Tolerant FPGAs with Synthesis-Based Mitigation
One of the most common approaches to radiation effects mitigation in FPGA design is simply opting for rad-tolerant silicon. However certain operating environments may entail further protection from single...…View On-demand Web Seminar
FPGA Design Assurance for DO-254 and Safety-Critical Applications
Methodologies, tools, and flows for processes such as design synthesis for FPGAs must take DO-254 or design assurance requirements into consideration if the end products are slated for safety-critical applications....…View On-demand Web Seminar
Is Your Safe Design Safe Enough
In this seminar, we explore the causes of soft errors such as SEUs and SETs and consider FPGA challenges when meeting safety-critical standards such as DO-254.…View On-demand Web Seminar
Other Related Resources
Precision Hi-Rel Evaluation
Software Evaluation: Precision® Hi-Rel, provides new synthesis-based radiation effects mitigation for aerospace and high reliability applications.…View Software Evaluation
Rad-Tolerant FPGA Design: An Easier Way
White Paper: FPGA development teams use a variety of techniques to deal with radiation, such as rad-tolerant silicon, device- or board-level triplication, or HDL-level mitigation. While these are all viable, each...…View White Paper
FPGA Synthesis for High Assurance Design (Including DO-254).
White Paper: Updated for 2011, this paper provides background information and also goes into detail on FPGA synthesis challenges and solutions in high assurance design, including DO-254 environments.…View White Paper
