Mechanical Engineer, Fluid Systems

As a Mechanical Engineer, Fluid Systems at Saronic Technologies, your main responsibilities include designing and optimizing fluid systems critical to the operation of autonomous surface vessels, such as propulsion, cooling, and hydraulic systems. You will apply fluid dynamics and thermodynamics principles to ensure these systems meet operational requirements. Additionally, you will collaborate with other engineering teams to integrate your designs seamlessly into the overall vessel architecture.

To apply for the Mechanical Engineer, Fluid Systems position at Saronic Technologies, you need a Bachelor's degree in Mechanical Engineering, Marine Engineering, Aerospace Engineering, or a related field, along with at least 5 years of experience in fluid systems design and analysis. Proficiency in engineering software tools such as ANSYS Fluent, SolidWorks, and MATLAB is also crucial as well as strong knowledge of fluid dynamics and thermodynamics.

Mechanical Engineers, Fluid Systems at Saronic Technologies typically utilize advanced engineering software tools such as ANSYS Fluent for computational fluid dynamics, SolidWorks for modeling, and MATLAB for simulations. Mastery of these tools is essential for developing and analyzing high-performance fluid systems that meet the crucial demands of defense applications.

At Saronic Technologies, a Mechanical Engineer, Fluid Systems will work on exciting projects that include the design and optimization of fluid systems for autonomous surface vessels. This includes propulsion, cooling, hydraulic, and fuel systems, all crucial for ensuring the vessels operate efficiently and reliably in complex operational environments.

Saronic Technologies offers a comprehensive benefits package to its Mechanical Engineers, including 100% medical insurance premiums for employees, generous paid time off, parental leave, competitive salaries, a 401(k) retirement plan, stock options, and additional perks like free lunches and unlimited snacks. This commitment to employee well-being fosters a supportive and enriching work environment.

When discussing fluid dynamics in your interview, highlight key concepts such as Bernoulli's principle, laminar vs. turbulent flow, and pressure drop calculations. Be sure to relate your theoretical knowledge to practical applications, such as how these principles impact the design and functionality of fluid systems in autonomous vessels.

In answering this question, provide specific examples of your past projects involving fluid system design. Discuss the methodologies you used, the outcomes, and any tools like ANSYS Fluent or MATLAB that you employed to achieve design goals, emphasizing your problem-solving skills and results-oriented approach.

Highlight your communication skills and experiences working in cross-functional teams. Provide examples of how you've successfully integrated fluid systems with other engineering components in past projects, underscoring your ability to collaborate effectively while respecting diverse perspectives.

Use the STAR method (Situation, Task, Action, Result) to describe a specific challenging issue you faced. Focus on the analytical and critical-thinking skills you utilized to develop a solution, emphasizing any methodologies or computational tools you leveraged along the way.

Discuss your experience with various analytical techniques and validation processes, such as simulations using computational tools, physical prototyping, and testing methods. Explain how these methods ensure your designs meet performance and safety criteria.

Demonstrate your commitment to professional development by discussing the resources you utilize, such as industry journals, conferences, workshops, online courses, and professional networking platforms. This shows your proactive approach to continuing education in fluid systems engineering.

Mention relevant standards such as MIL-STD, MIL-SPEC, and ASME. Clarify your understanding of how incorporating these codes not only ensures compliance but also enhances the performance and reliability of fluid systems in critical defense applications.

Explain your open-mindedness towards feedback and the importance of iterative design in engineering. Share examples of how you have adapted your designs based on testing feedback and operational data to optimize system performance.

Highlight any experience you have with heat transfer principles, thermal system design, or related projects. Explain how your understanding of thermodynamics contributes to your approach to fluid system design, particularly in maintaining efficiency under varying operational conditions.

Here, share your genuine enthusiasm for engineering and the impact it can have on solving real-world challenges. Discuss how your background, interests, or specific experiences have shaped your passion for fluid systems engineering, particularly in defense or maritime applications.