HILSIL Designer and Lead

As a HILSIL Designer and Lead at True Anomaly, your main responsibilities will include leading the design and implementation of HIL and SIL systems for spacecraft testing, collaborating with engineering teams to ensure seamless integration, developing high-fidelity simulation models, and executing test campaigns to validate software and hardware functionality.

To qualify for the HILSIL Designer and Lead position at True Anomaly, candidates must possess a bachelor’s degree in engineering disciplines such as controls, mechanical, aerospace, or electrical engineering, along with 5-7 years of relevant experience in spacecraft simulations and hands-on experience with mechanical, electrical, and software systems.

Candidates for the HILSIL Designer and Lead role should demonstrate proficiency in programming languages such as Python, C++, and C#. Familiarity with Beckhoff Automation IPC programming and various communication protocols is also vital for success in this position.

At True Anomaly, employee growth is a priority. In the HILSIL Designer and Lead role, you will have opportunities for professional development through innovative projects and the chance to collaborate with talented teams. Our work environment fosters creativity and personal ownership, making it a great place to grow your career.

The work environment for the HILSIL Designer and Lead at True Anomaly is fast-paced and collaborative. While the role currently allows for remote work until our LA factory opens in early 2025, there will be a hybrid model requiring some onsite presence for certain tasks, ensuring a blend of flexibility and teamwork.

In answering this question, it’s essential to highlight specific projects where you've designed or implemented HIL systems. Describe the objectives you aimed to achieve and the outcomes of your efforts, emphasizing collaboration with other engineering teams and any challenges you overcame during the process.

Discuss the techniques or tools you use to validate simulation accuracy, such as data analysis methods or specific software that assist in modeling spacecraft subsystems. Providing concrete examples of your methodology will demonstrate your expertise effectively.

Your answer should outline a systematic approach to troubleshooting, referencing any specific tools or techniques you use to diagnose problems. Provide examples from past experiences where your troubleshooting led to successful resolutions.

Focus on your communication skills and your role within team dynamics. Share specific instances where your collaboration led to successful project outcomes, highlighting your ability to integrate diverse ideas and expertise.

Be specific about your experience with relevant programming languages like Python, C++, and C#. Discuss projects where you've used these languages, the challenges you faced, and the impact your contributions had on the project’s success.

Talk about your time management techniques, such as creating task lists or utilizing project management tools. Mention how you adapt to shifting priorities and ensure that important deadlines are met without sacrificing quality.

Share examples of unique approaches or solutions you've introduced in your previous roles. Highlight any measurable improvements in efficiency or project outcomes that resulted from your innovations.

Provide a thoughtful analysis of common challenges, such as ensuring accuracy and reliability in simulations. Share your proposed strategies for mitigating these challenges, drawing on real-world experiences where applicable.

It’s crucial to reference your expertise with protocols like CAN, SPI, UART, and Ethernet. Discuss how you've integrated these protocols into your projects to enhance system performance and reliability.

Mention resources like academic journals, industry conferences, or online courses that you utilize to keep your knowledge up to date. Sharing how you apply new learnings to your work will show your commitment to professional development.