industry news
Subscribe Now

Optima Design Automation Announces the “Optima Safety Platform” to Drive Order-of-Magnitude Safety Fault Analysis Performance Improvements

Fault Injection Engine Forms the Basis of Unique Hard and Soft Error Automated Fault Analysis Solutions Accelerating ISO 26262 Verification and Increasing Device Quality

NAZARETH, ISRAEL – October 29, 2019 – Optima Design Automation today rolled out its next-generation Optima Safety Platform, (OSP), based on its Fault Injection Engine (FIE™) technology. OSP includes Optima’s first two automated solutions: Optima-HE™ and Optima-SE™ for hard-error and soft-error analysis, respectively. By increasing fault analysis performance by orders of magnitude over the next fastest solution, Optima offers its customers a reduction in analysis time from months to days, as well as automated coverage improvement and design safety.

OSP has been shown in private benchmarks to increase fault analysis performance more than two orders of magnitude over its nearest rival. To date, fault analysis of large automotive safety critical devices, as stipulated by the ISO 26262 standard, can require months of compute time to perform. By reducing this time to a matter of days or hours, new forms of analysis can be performed that dramatically improve device safety and quality while ensuring an accurate measure of fault resistance. The addition of Optima’s automated CoverageMaximizer™ technology allows for design areas not analyzed during verification to be easily eliminated, further improving the analysis process.

“Up to now, automotive ISO 26262 fault analysis has made use of traditional, slow fault simulation technology designed for a different purposes, using 30-year-old algorithms and methods,” noted Jamil Mazzawi, Optima’s Founder and Chief Executive Officer. “We have taken an entirely new approach to this problem, building the fault-simulation algorithms from the ground up to realize dramatic improvements in this time-consuming process. This has opened the potential for new analysis solutions that allow previously unavailable operations to be performed that maximize functional safety coverage and ultimate device quality.”

Optima Fault Injection Engine Technology
The only tool available for safety fault analysis has been traditional fault simulation, a 30-year-old technique that was designed to target semiconductor manufacturing testing. Optima’s engineering team has developed a new, proprietary set of fault analysis algorithms that specifically targets safety analysis fault injection.

By leveraging modern parallel simulation and formal verification technologies, avoiding issues caused by manufacturing fault simulation requirements, and taking a new slant on fault optimization methods such as fault list pruning and collapsing, the FIE provides revolutionary analysis performance. One private benchmark of the FIE versus the broadly considered fastest rival fault simulator on a commercial design showed the FIE executing more than 1000X faster.

Optima has used the FIE technology as a basis on which to build specialized solutions for different fault scenarios

Optima-HE and Optima-SE Automated Analysis Solutions
The Optima Safety Platform includes a broad range of fault analysis solutions for different applications and industries. Its two initial solutions that target ISO 26262 automotive safety fault analysis provide streamlined solutions for hard errors, or permanent faults, and soft errors, or transient faults.

Optima-HE uses the FIE to perform exhaustive fault analysis for stuck-at-1 and stuck-at-0 hard errors. Based on the ISO 26262 standard categorization, the solution identifies dangerous faults in a design that are not trapped by a safety mechanism and could cause a significant failure that might lead to personal injury. It analyzes large design code bases extremely rapidly, reducing a process that used to require months down to a few days or less. This enables development teams to predict an accurate metric for fault coverage that makes an ASIL-D rating for their devices possible. Furthermore, Optima-HE includes CoverageMaximizer technology that identifies areas of the device not adequately tested and provides guidance for the engineers to cover these hard-to-find gaps in the process.

Optima-SE also uses the FIE to perform soft-error analysis on transient faults. Transient faults are notoriously hard to identify due to their temporary nature. A technique of “flip-flop hardening” for critical areas of the design may be used to eliminate transient fault effects. However, hardening every flip-flop in a design is extremely expensive in terms of silicon area and power consumption. By iteratively applying fault analysis it is possible to identify a subset of the design flips-flops, which if hardened will ensure a high degree of transient fault resistance while minimizing additional flip-flop circuitry. However, this valuable process requires many fault analysis runs making it prohibitive for most device development programs. Leveraging the high performance of the FIE, Optima-SE makes this process possible in a reasonable amount of time, thereby dramatically increasing device quality. Running on a customer design of a commercially available CPU, Optima-SE has been shown to run over 10,000 times faster than regular RTL simulation.

Pricing and Availability
The Optima Safety Platform, including Optima-HE and Optima-SE, both based on the FIE, are available today. The company will release CoverageMaximizer in March 2020. Pricing is available on request.

About Optima Design Automation
Optima Design Automation is the pioneer of next-generation fault analysis for automotive functional safety verification. The company’s product portfolio of automated solutions targets specific fault conditions, accelerating fault simulation stipulated by the ISO 26262 standard by orders of magnitude and enabling a dramatic increase in analysis coverage and ultimate device quality. Optima partners with leading automotive semiconductor vendors and EDA tool providers to create complete solutions that shorten safety critical device time-to-market. Co-funded by the European Union, the company is privately held and is based in Nazareth, Israel. For more information, visit Optima-DA.com.

Leave a Reply

featured blogs
Jul 13, 2020
As I write this in early July, we are looking at the calendar of events and trade shows for this year, and there are few survivors.  The Coronavirus pandemic of 2020 has seen almost all public events cancelled, from the Olympics to the Eurovision Song Contest.  Less...
Jul 10, 2020
[From the last episode: We looked at the convolution that defines the CNNs that are so popular for machine vision applications.] This week we'€™re going to do some more math, although, in this case, it won'€™t be as obscure and bizarre as convolution '€“ and yet we will...
Jul 10, 2020
I need a problem that lends itself to being solved using a genetic algorithm; also, one whose evolving results can be displayed on my 12 x 12 ping pong ball array....

Featured Video

Product Update: DesignWare® TCAM IP -- Synopsys

Sponsored by Synopsys

Join Rahul Thukral in this discussion on TCAMs, including performance and power considerations. Synopsys TCAMs are used in networking and automotive applications as they are low-risk, production-proven, and meet automotive requirements.

Click here for more information about DesignWare Foundation IP: Embedded Memories, Logic Libraries & GPIO

Featured Chalk Talk

Microchip PIC-IoT WG Development Board

Sponsored by Mouser Electronics and Microchip

In getting your IoT design to market, you need to consider scalability into manufacturing, ease of use, cloud connectivity, security, and a host of other critical issues. In this episode of Chalk Talk, Amelia Dalton sits down with Jule Ann Baker of Microchip to chat about these issues, and how the Microchip PIC-IoT WG development board can help you overcome them.

Click here for more information about Microchip Technology PIC-IoT WG Development Board (AC164164)