Firmware Engineering Manager II (Staff), Embedded Platforms

The Firmware Engineering Manager II at Latitude AI is responsible for leading a team of engineers, ensuring effective collaboration between hardware and software teams. This role involves developing software that meets specific functional and security requirements for Ford's Advanced Driver Assistance Systems (ADAS). You'll also design and implement innovative software solutions, manage team dynamics, and set a long-term vision for embedded platforms.

To be successful as a Firmware Engineering Manager II at Latitude AI, candidates should possess a Bachelor’s degree in a related field along with extensive work experience. They should have strong software engineering skills in C or C++, proficiency in network communication concepts, and familiarity with embedded RTOS such as Autosar or QNX. Experience in developing software for safety-critical systems is highly valued.

Candidates with experience in driver development, tooling for hardware/software validation, and automotive ECU design will stand out for the Firmware Engineering Manager II role at Latitude AI. Familiarity with Linux-based operating systems, debugging low-level software and hardware interfaces, and networking knowledge also make for a competitive profile.

Latitude AI fosters a collaborative, innovative work environment where creativity and hands-on problem-solving are encouraged. As a Firmware Engineering Manager II, you'll be surrounded by experts in various fields, contributing to a culture that values teamwork and strives for excellence in developing next-generation technologies.

Latitude AI offers various professional development opportunities, including reimbursement for educational endeavors, mentorship from industry leaders, and access to resources for enhancing technical skills. Employees enjoy a supportive environment focused on continuous learning and growth.

In the role of a Firmware Engineering Manager II, my leadership style focuses on fostering collaboration and encouraging open communication. I believe in empowering my team members by providing them with autonomy while ensuring that they have the support they need to achieve both technical and business goals. This approach not only enhances innovation but also builds a positive and productive team environment.

In my previous roles, I have actively participated in the design and development of embedded systems that prioritize safety. This includes utilizing thorough testing protocols, implementing fail-safe mechanisms, and ensuring compliance with automotive industry standards. My strong background in software engineering allows me to focus on both the technical aspects and the broader safety implications of our systems.

I regularly conduct alignment meetings to ensure the team is clear on project goals and expected outcomes. I emphasize the importance of communication between technical and business teams. By fostering an environment where engineers understand the 'why' behind their work, we're able to create solutions that not only fulfill functionality but also support the company's broader strategy.

One notable challenge involved optimizing the performance of a multi-core embedded processor for a critical application. By implementing advanced threading and load distribution strategies, I was able to significantly enhance processing efficiency while ensuring that the system maintained its real-time capabilities. This experience highlighted the importance of thorough testing and iterative development.

I have extensive experience with common communication protocols such as SPI, I2C, and CAN. Understanding these protocols is essential for developing efficient hardware/software interfaces. I approach each new project by assessing the required communication needs and selecting the appropriate protocol to ensure optimal performance and reliability.

I start by conducting a thorough analysis of both functional needs and security specifications. I prioritize security right from the design phase, incorporating practices like end-to-end encryption and secure coding principles. Continuous cross-functional reviews and rigorous testing help ensure that the software adheres to regulatory standards and industry best practices.

I utilize a combination of automated testing frameworks and manual validation techniques to ensure the robustness of hardware/software interfaces. This includes developing extensive test cases to cover edge scenarios and using simulation tools to mimic operating conditions. Continuous feedback loops with development teams help in swiftly addressing any issues that arise during validation.

Staying updated is key in this fast-paced industry. I regularly attend industry conferences, participate in webinars, and follow influential publications and thought leaders in embedded systems and automotive advancements. Additionally, I encourage my team members to share insights and resources, fostering a culture of continuous learning and adaptation.

Collaboration is at the heart of my management style. I believe that diverse perspectives lead to more innovative solutions. By creating an interdisciplinary environment where engineers can communicate freely, we can better integrate hardware and software components, leading to superior final products. I actively seek input from all team members during the design and development phases.

I emphasize the importance of mentorship in developing young talent. My approach includes structuring regular one-on-one check-ins to provide feedback and guidance, encouraging junior engineers to take initiative and ownership of their projects while remaining available for assistance. Creating a safe environment for questions fosters their growth and builds their confidence.