Vehicle Controls ECU Platform Functional Safety Architect

We made history and now we work to transform the future - for our customers, our communities and our families. You'll see your work on the road every day, helping people move freely and pursue their dreams. At Ford, you can build more than vehicles. Come build what matters.

In this position...

You'll join an agile team of doers pioneering our EV future by working collaboratively, staying focused on what matters, and delivering excellence day in and day out. We are seeking a highly motivated Vehicle Controls ECU Platform Functional Safety Architect to play a pivotal role in developing cutting-edge vehicle control systems.

The Role Imagine being the architect of the software that powers a vehicle's brain. In this position, you are the mastermind configuring core safety software components to ensure our systems are as reliable as they are efficient. You will drive the development of Functional Safety solutions for Inverter System Controllers (ISC) and Drive Motor Controllers (DMCM), ensuring the safety and excellence of our future EREV, EV, and Hybrid vehicle platforms.

You will dive deep into code to solve complex challenges-from processor resets to memory protection violations-ensuring the powertrain runs smoothly and responds instantly to every driver command.

Vehicle Controls ECU Platform Functional Safety Architect - Software Engineer

What you'll do...

Architect & Design

Safety Architecture:
Apply ISO 26262 (Parts 4, 5, 6,
9) to design, implement, and review safety mechanisms for both in-house and supplier-sourced ECU platforms.

Platform Bedrock:
Configure BSW components (Diagnostics, Watchdog, NVM, Mem Map) and define ASIL/QM partitioning to ensure "freedom from interference" across powertrain ECUs.

Security & Stability:
Lead the configuration of Memory Protection Units (MPU) and Safety Management Units (SMU) to ensure cross-program commonality and system stability.

Execute & Optimize

Advanced Debugging:
Master low-level troubleshooting of processor resets and software glitches to identify root causes and implement permanent solutions.

Performance Engineering:
Strategically distribute runnables across multi-core processors to maximize efficiency and minimize latency.

Software Integration:
Support the integration of Software Integration Packages (SIPs) and third-party supplier code into the Ford platform.

Verify & Document

Safety Verification:
Define and execute Fault Injection Testing (FIT) using HIL and SIL environments to validate diagnostic coverage.

Technical Compliance:
Author and maintain critical safety documentation, including the ECU Technical Safety Concept (TSC), ECU Software Safety Specification (SSS), and Hardware-Software Interface (HSI).

What you'll do...

Architect & Design

Safety Architecture:
Apply ISO 26262 (Parts 4, 5, 6,
9) to design, implement, and review safety mechanisms for both in-house and supplier-sourced ECU platforms.

Platform Bedrock:
Configure BSW components (Diagnostics, Watchdog, NVM, Mem Map) and define ASIL/QM partitioning to ensure "freedom from interference" across powertrain ECUs.

Security & Stability:
Lead the configuration of Memory Protection Units (MPU) and Safety Management Units (SMU) to ensure cross-program commonality and system stability.

Execute & Optimize

Advanced Debugging:
Master low-level troubleshooting of processor resets and software glitches to identify root causes and implement permanent solutions.

Performance Engineering:
Strategically distribute runnables across multi-core processors to maximize efficiency and minimize latency.

Software Integration:
Support the integration of Software Integration Packages (SIPs) and third-party supplier code into the Ford platform.

Verify & Document

Safety Verification:
Define and execute Fault Injection Testing (FIT) using HIL and SIL environments to validate diagnostic coverage.

Technical Compliance:
Author and maintain critical safety documentation, including the ECU Technical Safety Concept (TSC), ECU Software Safety Specification (SSS), and Hardware-Software Interface (HSI).