Mechanical Engineer

The Mechanical Engineer at Amidon Heavy Industries is responsible for architecting and designing AUV subsystems, conducting stress analyses, and collaborating with electrical and software teams. You will focus on pressure vessel design, hydrodynamics, and propulsion, while also building and testing prototypes using data and simulations.

To qualify for the Mechanical Engineer role at Amidon Heavy Industries, candidates should have a Bachelor’s degree in Mechanical Engineering or a related field, along with at least 3 years of relevant industry experience. Familiarity with mechanical design in aerospace or maritime systems, as well as proficiency in Solidworks, FEA, and CFD, is also essential.

As a Mechanical Engineer at Amidon Heavy Industries, your work directly contributes to naval security by designing innovative AUVs that improve operational capabilities. By creating systems that address modern maritime challenges, you help enhance the effectiveness and safety of naval fleets.

A Mechanical Engineer at Amidon Heavy Industries should be proficient in software tools such as Solidworks, FEA, and CFD. These skills are critical for designing and analyzing components, performing simulations, and ensuring that the final product meets both performance and safety standards.

The workplace culture for a Mechanical Engineer at Amidon Heavy Industries is dynamic, collaborative, and innovation-driven. As part of a fast-paced startup, you will engage in idea-sharing and teamwork, which are vital to achieving our goals in advancing subsea robotics.

In preparing for this question, reflect on specific projects where you applied mechanical design principles to underwater vehicles. Highlight your understanding of hydrodynamics, material selection, and any testing protocols you followed to ensure reliability.

Discuss your preferred methods for conducting stress analysis, such as Finite Element Analysis (FEA). Mention any software tools you are proficient in, and explain how you interpret the results to inform design decisions.

To answer this question effectively, discuss your time management strategies and your approach to assessing the urgency and importance of tasks. Provide examples of how you've adapted to changing priorities in past experiences.

Use the STAR format (Situation, Task, Action, Result) to explain a specific design challenge. Detail the problem, the steps you took to analyze it, the solutions you implemented, and the outcomes that followed.

Emphasize the importance of open communication and regular cross-discipline meetings. Share your experiences in collaborative projects, highlighting how you integrated mechanical designs with electrical and software requirements.

Discuss your approach to testing prototypes, including the types of testing you conduct (e.g., simulations, field tests) and how you collect and analyze data. Talk about your willingness to iterate designs based on test results to ensure functionality.

Explain the importance of materials science in underwater systems. Mention specific materials you have experience with and how you select them based on environmental conditions, durability, and performance requirements.

Articulate your process for gathering and interpreting user feedback. Explain how you incorporate user insights into design iterations to enhance usability and effectiveness while navigating external constraints.

Provide an overview of relevant safety standards applicable to underwater vehicles or marine systems, such as ISO standards. Discuss your experience in ensuring compliance throughout the design and testing processes.

Discuss your strategies for professional development, such as attending industry conferences, participating in workshops, or following relevant publications and online resources to keep abreast of new technologies and trends.