Automation & Controls Engineer (Starlink)

An Automation & Controls Engineer at SpaceX is responsible for designing, building, and implementing essential automation systems that improve manufacturing processes. This includes writing PLC code, developing robotic controls, and creating user interfaces. Their work directly supports the production of satellite technology, ensuring high efficiency and quality.

To excel as an Automation & Controls Engineer at SpaceX, candidates should hold a Bachelor’s degree in Electrical or Mechanical Engineering, Computer Science, or a related STEM field. A minimum of one year of hands-on experience in automation system design and commissioning in manufacturing environments is also required, alongside strong problem-solving skills.

The Automation & Controls Engineer plays a critical role in the Starlink project by developing automation systems that enhance satellite manufacturing processes. This role improves efficiency, lowers operational costs, and ensures quality, ultimately enabling SpaceX to provide internet access worldwide.

Preferred skills for the Automation & Controls Engineer role include experience with PLC programming, robotics programming, and industrial automation hardware. Knowledge of field bus networking protocols and proficiency in software like C#, Python, and SCADA is also desirable, along with excellent communication skills.

Candidates can expect a fast-paced, innovative work environment at SpaceX. The team is driven by a passion for technology and exploration, offering a collaborative workspace where ideas are valued, enabling engineers to focus on complex problem-solving and creativity in their projects.

Absolutely! SpaceX provides numerous opportunities for professional development and advancement within the company. Engineers are encouraged to learn new skills, take on challenging projects, and pursue mentorship, all of which can lead to career progression in various engineering disciplines.

SpaceX offers a comprehensive benefits package, including competitive salaries, stock options, health insurance, a 401(k) plan, paid parental leave, and generous vacation time. Employees also have access to company shuttles and various discounts and perks, ensuring a work-life balance.

Begin by identifying the objectives and requirements of the system. Assess available technology and components that meet these requirements. Collaborate with team members for feedback, and develop a detailed design specification that outlines each stage of the manufacturing process.

PLC programming involves creating code that allows programmable logic controllers to automate machines and processes. It is crucial for ensuring reliable and efficient operation in manufacturing environments. Familiarity with structured text programming and state machines is beneficial.

Start with systematic testing of each subsystem to isolate the issue. Use tools like multimeters and oscilloscopes for diagnosing electrical circuits. Review error logs and follow the signal path to uncover faults, employing a methodical approach to implement solutions.

In my previous role, I programmed industrial robots for tasks such as pick and place. I utilized ABB Rapid programming to develop routines and debugged issues to ensure precise operation and safety compliance, working on enhancing efficiency and integrating machine vision for guidance.

Data analysis helps identify trends and improve production efficiency. By applying Statistical Process Control and other data tools, I can monitor process performance, detect deviations, and implement solutions for continuous improvement, leading to reduced waste and increased productivity.

To ensure compliance, I rigorously follow standards such as ANSI/RIA15.06 and OSHA requirements during the design phase. I implement fail-safe mechanisms and strive for safety in control circuit design, conducting thorough risk assessments and testing systems before deployment.

Certainly! I once encountered a persistent electrical issue affecting the timing of automated processes. I meticulously analyzed the circuitry, identified an interference issue, and reconfigured the installation to enhance signal integrity, solving the problem while improving overall system performance.

When designing user interfaces, clarity is critical. I focus on creating intuitive layouts, providing accessible troubleshooting guides, and utilizing visual aids to simplify machine operations. I prioritize user feedback during testing to ensure functionality and usability meet operational needs.

I regularly engage with industry publications, attend workshops, and participate in online forums focused on automation and robotics. Networking with fellow engineers and continuing education has enriched my knowledge, enabling me to apply the latest advancements in my projects at SpaceX.

The aerospace industry is at the forefront of innovation and exploration. Working at SpaceX offers the unique opportunity to impact humanity's reach into space, and I'm driven by the passion to contribute to groundbreaking technology that makes a tangible difference in the world.