FMEDA-Driven SoC Design Of Safety-Critical Semiconductors


As state-of-the-art electronics propel the automotive, industrial, and aerospace industry into a future of more connectivity and autonomy, the development of safety-compliant semiconductors is critical. The Cadence FMEDA-driven Safety Solution consists of products enhanced for advanced safety analysis, safety verification, and safety-aware implementation for digital driving analog and dig... » read more

Why It’s So Difficult To Ensure System Safety Over Time


Safety is emerging as a concern across an increasing number of industries, but standards and methodologies are not in place to ensure electronic systems attain a defined level of safety over time. Much of this falls on the shoulders of the chip industry, which provides the underlying technology, and it raises questions about what more can be done to improve safety. A crude taxonomy recently ... » read more

FMEDA Powered Safety Verification Methodology For Semiconductors


Today’s automobiles require increasingly complex systems and chips, adherence to functional safety processes has become essential during the design development phase. The intricate nature of  semiconductors used in automotive applications is driving the need for functional safety throughout the entire supply chain, reaching not just the automobile manufacturers but also the semiconductor des... » read more

A Safety Verification Methodology For Automotive Semiconductors


By Alessandra Nardi (Synopsys), Teo Cupaiuolo (Synopsys), and Liu Min (SGS-TÜV Saar) Functional safety has been a long-standing requirement for many electronics applications, including implanted medical devices, space-borne systems, and nuclear power plants. The widespread use of advanced driver assistance systems (ADAS) and the advent of self-driving vehicles have added automotive chips to... » read more

Functional Safety Verification Of Serial Peripheral Interface


A new technical paper titled "FMEDA based Fault Injection to Validate Safety Architecture of SPI" was published by researchers at R.V. College of Engineering in India and Analog Devices. Abstract "The integration of advanced technologies into Electrical Vehicles (EV) has been increasing in recent times, so it has become crucial to evaluate the risk of the technologies that are deployed into... » read more

Scalability: A Looming Problem In Safety Analysis


The boundless possibilities of automation in cars and other vehicles have captivated designers to the point that electronic content is now a stronger driver of differentiation than any other factor. It accounts for a substantial fraction of material cost in any of these vehicles. But this revolution in automotive technology comes with a caveat. In other applications, an electronics problem may ... » read more

ISO-26262 Hardware Architecture


This new technical paper titled "Safety-Oriented System Hardware Architecture Exploration in Compliance with ISO 26262" was published by researchers at National Taipei University. Abstract "Safety-critical intelligent automotive systems require stringent dependability while the systems are in operation. Therefore, safety and reliability issues must be addressed in the development of such sa... » read more

A Safety-Oriented System Hardware Architecture Exploration Framework


New technical paper titled "Safety-Oriented System Hardware Architecture Exploration in Compliance with ISO 26262" from researchers at National Taipei University. Abstract: "Safety-critical intelligent automotive systems require stringent dependability while the systems are in operation. Therefore, safety and reliability issues must be addressed in the development of such safety-critical sy... » read more

Time For FMEDA Reuse?


How do designers quantify safety in electronic systems? Through one or more tables called Failure Modes, Effects and Diagnostic Analysis – FMEDA. In fact, an FMEDA does not have to be a table; it could be manifested in scripts or some other form, but a table is the easiest way to think of this information. Think of an FMEDA for an IP, as the concept extends easily to a system-on-chip (SoC). T... » read more

Is A Guestimate Good Enough For Obtaining Failure Mode Distribution?


SoCs targeting automotive applications are required to meet certain safety and quality standards as described in ISO 26262. A quantitative approach to safety analysis involves performing Failure Mode Effects and Diagnostic Analysis (FMEDA). FMEDA is a systematic quantitative analysis technique to obtain subsystem/product level failure rates, failure modes and diagnostic capabilities of systemat... » read more

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