Electrical Systems Engineer II – Power

As an Electrical Systems Engineer II – Power at True Anomaly, you will design and analyze electrical power systems for our spacecraft missions. Your role includes hands-on work with solar arrays, batteries, and power distribution units, ensuring our systems meet the highest performance standards.

To qualify for the Electrical Systems Engineer II – Power role at True Anomaly, you need a Bachelor’s degree in electrical engineering and at least two years of relevant electrical or space systems engineering experience. A solid understanding of spacecraft power system design and subsystems is also crucial.

Collaboration is key for an Electrical Systems Engineer II – Power at True Anomaly. You will work closely with mechanical, software, and systems engineering teams to ensure that our electrical systems integrate perfectly with other spacecraft components, fostering a multidisciplinary approach to problem-solving.

In this role, you will conduct various tests, including radiation and reliability analyses, EMI/EMC tests, thermal vacuum simulations, and vibration testing. This thorough testing process ensures that all systems function reliably in the harsh environment of space.

True Anomaly offers a competitive compensation package, including a base salary between $115,000 and $130,000, equity, and comprehensive health benefits. You will also enjoy paid time off, a 401K plan, and the opportunity to work on innovative aerospace technology that makes a significant impact.

When answering this question, describe the project scope, your specific role, the challenges faced, and how you overcame them. Highlight your analytical skills and how you worked with a team to ensure success.

Discuss your approach to conducting radiation and reliability analyses, as well as how you use failure mode and effects analysis (FMEA) to communicate potential risks and improvement strategies effectively.

Share any specific experiences you have with developing, testing, or using electrical ground support equipment (EGSE), emphasizing its importance in system testing and validation protocols.

Emphasize the importance of clear communication and collaboration. Share examples of past experiences where you successfully worked with different engineering disciplines to achieve project goals.

Provide a specific scenario where you had to evaluate design trade-offs. Detail your decision-making process, considering factors such as performance, safety, and budget constraints.

Mention specific software tools you are familiar with, such as MATLAB, Simulink, or others you have experience with. Discuss how these tools help you visualize and analyze power system performance.

Talk about factors such as solar efficiency, layout optimization, and integration with other spacecraft systems, highlighting the importance of thorough testing and validation.

Discuss any relevant professional development activities, such as attending workshops, conferences, or participating in online courses, showing your commitment to continuous learning in aerospace engineering.

Choose a specific challenge you encountered, detailing how you addressed it. Focus on problem-solving techniques and lessons learned to demonstrate your resilience and capacity for growth.

Explain the significance of tests such as EMI/EMC, thermal vacuum, and vibration testing. Describe how you have been involved in such testing and the role it plays in ensuring spacecraft reliability.