Thought Leadership

Guidelines to a successful ISO 26262 Lifecycle

New business models continue to drive disrupting innovation into the automotive market. This includes everything from mobility as a service, to the electrification of the drivetrain, to new autonomous fleet models for taxis, and the commercial movement of goods. Seeing this, many companies have made strategic decisions and investments to enter this arena. Both veteran silicon providers and newcomers to the automotive industry face a host of new challenges as their customers demand advanced functionality in the ISO 26262 compliant IC’s being developed.

Automotive end use applications
Mobility End-Use Applications

To help shed light into some of these challenges, a team of safety experts across Siemens DISW and it’s partners have gotten together to detail some of the challenges we have seen in the industry and ways to mitigate or solve these challenges.

We certainly can’t address these challenges adequately in a single blog post. Therefore, we will be delivering a series of posts with each post discussing a challenge or best practice when developing a semiconductor intended to be compliant to ISO 26262. This series will provide safety managers, project leads, and practitioners a list of challenges that exist in various points in the ISO 26262 Safety lifecycle where considerable thought should be given and a plan formed prior to execution of the task or possibly even the development lifecycle.

To kick this off, it’s important to set the scope of this series.

ISO 26262 Functional Safety Series Scope

As hinted at in the introduction, this series mainly targets semiconductor companies developing ISO 26262 compliant ICs. This includes companies developing smaller mixed-signal ASICs to companies developing large multi-domain SoCs. However, the topics might be of interest to anyone focused on functional safety.

This series will discuss challenges that span across the entire safety lifecycle.

ISO 26262 Lifecycle Key Components
Automotive Lifecycle

As shown in the figure above, this includes challenges during concept, requirement definition, design, verification, integration, and more.

ISO 26262 Functional Safety Series Posts

Below is a list of topic areas currently addressed in this series. Please use the RSS feed feature to be notified when new posts are added.


ISO 26262 Safety Analysis

Safety Analysis – We all need something to lean on

Discusses the impact of inaccurate safety analysis to a project lifecycle

Finding the optimal safety architecture

Getting your Safety Architecture just right

Discusses the need to create an overall strategy for your design’s safety mechanisms for efficient development and cost.

IC Configurability affects Safety Activities

The configurability dilemma creating safe ICs

Discusses the challenges configurability presents developing and delivering IP and/or IC’s compliant to ISO 26262.

Safety Analysis

The importance of effective Safety Analysis

Discusses the importance of performing effective early cycle safety analysis to deliver a successful single pass safety lifecycle.

Engineering Tools

Clearing the Fog of ISO 26262 Tool Qualification

Discusses ISO 26262 Tool Qualification; detailing common misconceptions, misunderstandings, and pitfalls

ISO 26262

ISO 26262…the tale of Transient and Permanent Faults

Discusses the nuances and considerations when addressing permanent and transient faults within an ISO 26262 lifecycle.


Siemens Automotive and Safety Solutions

Siemens Digital Industries Software (DI SW) continue to invest in software solutions to assist project teams at each phase of the automotive lifecycle ($11B to date).  With over 12,000 engineers working across various aspects of the Siemens DI SW platform, Siemens is able to provide software automation from concept to requirements, through design and verification, across validation and integration, and through the operational life of an IC. Complimenting the semiconductor solutions is a suite of software enabling system and vehicle level pre-silicon validation along with the digital twin and digital thread capabilities tying these domains together.

Simply put: From Chip to City, Siemens delivers industries most comprehensive portfolio of integrated end-to-end safety solutions, accelerating customers safety lifecycle and enabling our customers to deliver safe products on time and on budget

Siemens Chip to City supporting an ISO 26262 lifecycle across suppliers, integrators, and OEMs

If you are interested in learning more, please check out Siemens Functional Safety Solutions. Functional Safety education and training is also available at Siemens EDA Verification Academy.

Conclusion

We hope you find this series enlightening, providing insight into the challenges frequently seen by practitioners developing ICs for the automotive market and the methodologies and solutions to solve industries’ most pressing issues. If you have a challenge that you’d like to see discussed, please leave a comment below.

Jacob Wiltgen

Jacob Wiltgen is the Functional Safety Solutions Manager for Mentor, A Siemens Business and responsible for defining and aligning functional safety technologies across the portfolio of IC Verification Solutions. He holds a Bachelor of Science degree in Electrical and Computer Engineering from the University of Colorado Boulder. Prior to Mentor, Jacob has held various design, verification, and leadership roles performing IC and SOC development at Xilinx, Micron, and Broadcom.

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This article first appeared on the Siemens Digital Industries Software blog at https://blogs.sw.siemens.com/verificationhorizons/2022/02/04/guidelines-to-a-successful-iso-26262-lifecycle/