CNC Programmer (Starlink) - Level 4/5

As a CNC Programmer (Starlink) - Level 4/5 at SpaceX, you'll be responsible for programming CNC parts using NX or MasterCam software, maintaining NC files, and ensuring consistent production. Your role will also involve collaborating closely with machinists and engineering teams to optimize machining processes and provide valuable suggestions for drawing modifications to enhance manufacturability.

To qualify for the CNC Programmer (Starlink) - Level 4/5 role at SpaceX, candidates should possess a high school diploma and have at least 5 years of experience in CNC programming using NX or MasterCam software. Preferred qualifications include 10+ years of experience and familiarity with multi-axis mill and lathe CNC machines.

Preferred skills for the CNC Programmer (Starlink) - Level 4/5 position at SpaceX include extensive experience with NX or MasterCam software, proficiency in programming and operating multi-axis CNC machines, and a strong understanding of cutting tools and feed parameters for maximizing tool life.

CNC Programmers at SpaceX can expect a competitive pay range of $44.00 - $62.00 per hour, depending on experience and level. Additionally, employees enjoy comprehensive medical, vision, and dental coverage, a 401(k) retirement plan, paid vacations and holidays, and various other perks, including stock options and discretionary bonuses.

CNC Programmers (Starlink) - Level 4/5 at SpaceX should be able to lift 25 lbs. unassisted and perform physical tasks such as lifting, bending, and standing for extended periods, as these tasks are essential to perform the role effectively.

To ensure accuracy, it's important to double-check your programming inputs, utilize simulation tools such as Vericut to visualize machining operations, and maintain open communication with your machinists regarding any discrepancies or adjustments needed throughout the production process.

Discuss specific projects where you've utilized NX or MasterCam. Highlight your familiarity with different functionalities, such as creating complex geometries, setting up tool paths, and how your programming has impacted productivity or quality at your previous jobs.

Start by reviewing the most recent changes made to the machining programs or setups, check all tool offsets, and ensure that the stock material is secured. If issues persist, consult machine diagnostics to determine potential mechanical or software failures, and work closely with operators to minimize downtime.

I prioritize tasks based on urgency and production schedules, communicating closely with cross-functional teams to understand critical timelines. I'll make organization a priority by maintaining a clean workspace and utilizing software tools for tracking project progress to stay on top of overlapping deadlines.

I first assessed the junior machinist's skills and knowledge gaps, then developed a tailored mentoring plan, including hands-on demonstrations and structured learning assignments. Providing constructive feedback and encouraging questions created a supportive environment that helped them grow their CNC programming abilities.

I implement strict naming conventions for files, maintain detailed logs of changes, and use version control software when possible. I regularly update setup sheets and ensure all team members have access to the latest documents to prevent confusion and errors during production.

I actively participate in workshops, industry conferences, and online courses centered on CNC technology. Networking with other professionals and following leading manufacturers and software updates helps me keep abreast of new tools and techniques in the CNC programming space.

I adjust the speed and feed rates according to the specific material properties and geometries being machined. Additionally, I may fine-tune the depth of cut and tool material choices based on performance feedback and documented results from previous productions to maximize overall tool lifespan.

Process improvement is vital as it directly impacts productivity, efficiency, and cost-management. By constantly seeking ways to optimize machining processes, we can reduce waste, improve product quality, and meet project deadlines, ultimately supporting the larger goals of the SpaceX mission.

I maintain regular communication with team members to identify the root causes of delays. I prioritize tasks, suggest alternative strategies to minimize impact, and involve engineering teams to find solutions that balance efficiency and quality, ensuring the project stays on track.