Mechanical Engineer - job 1 of 2

As a Mechanical Engineer at Anduril Industries, your primary responsibilities will include owning and driving mechanical systems and platform development. You will manage projects from initial concept through to low rate production, leading technical efforts to define requirements and propose viable solutions. Close collaboration with electrical and software engineering teams will be a daily aspect of your role to ensure cohesive and effective system performance.

To apply for the Mechanical Engineer position at Anduril Industries, you should have a Bachelor's or Master's degree in mechanical engineering, or equivalent work experience. Additionally, at least 3 years of experience in a technical engineering role, proven CAD skills, and a strong understanding of engineering fundamentals in structures, fluids, and mechanisms are required.

We prefer candidates who are proficient in CAD, especially NX, and have experience working with MATLAB/SIMULINK/SIMSCAPE. A solid understanding of manufacturing processes and experience with rapid prototyping techniques, as well as hands-on fabrication skills, will also give you a significant advantage in the Mechanical Engineer role at Anduril Industries.

Absolutely! Anduril Industries is committed to promoting professional development. As a Mechanical Engineer, you will find high growth potential and can aspire to leadership roles over time, providing ample opportunities to advance your career while contributing to innovative projects.

At Anduril Industries, you can expect a vibrant and collaborative work environment that promotes dedication and enjoyment. We prioritize a community atmosphere where you can learn, grow, and tackle challenges alongside other passionate individuals committed to transforming defense technology.

In approaching mechanical system development, I first ensure I thoroughly understand the project requirements. I then create a structured plan that includes stages for design, prototyping, and testing while collaborating closely with cross-functional teams to align our objectives.

My experience with CAD software is extensive, particularly in NX, where I’ve produced high-quality engineering drawings compliant with industry standards. I focus on ensuring precision and clarity in all design aspects, which facilitates effective communication with team members.

Ensuring reliability starts with a thorough design process. I use simulations and prototype testing to assess functionality and identify potential issues early. I also collaborate with other disciplines to verify that all systems integrate seamlessly, thus enhancing overall reliability.

I prioritize open communication and actively participate in shared meetings to foster teamwork. I also make it a point to understand the goals and challenges of other disciplines, which helps in finding solutions that align our efforts towards a common objective.

One of my challenging projects involved developing a prototype that faced unexpected mechanical failures. By collaborating with the team, we conducted thorough analyses, redesigned problem areas, and improved our testing protocols, resulting in a successful final product that exceeded performance expectations.

I stay updated through attending industry conferences, participating in webinars, and reading relevant journals and publications. Engaging with professional networks also allows me to share insights and learn from peers in the field.

When designing for manufacturability, I consider factors such as material selection, ease of assembly, and production methods. My goal is to create designs that are not only technically sound but are also cost-effective and easily scalable for mass production.

In the case of disagreements within the team, I believe in fostering an environment where everyone feels comfortable voicing their opinions. I encourage open discussions to understand different perspectives, and we work collectively to find a mutually agreeable solution.

I have extensive experience with rapid prototyping techniques, particularly using 3D printing to create physical models for testing. This allows for quick iterations based on feedback and is crucial in reducing lead times for design validation.

Feedback is critical throughout my engineering process. I often seek input from colleagues and stakeholders to refine designs, and I embrace constructive criticism as an opportunity to enhance the quality and functionality of my work.