Senior Mechanical Engineer, Remote Handling

The Senior Mechanical Engineer at Kairos Power will focus on developing innovative mechanical handling solutions within reactor systems. This entails designing and iterating remote handling systems, collaborating with various engineering teams, and ensuring the efficient maintenance and inspection of reactor components with minimal operational impact.

To qualify for the Senior Mechanical Engineer role at Kairos Power, candidates should possess a B.S. degree in Mechanical Engineering or an equivalent field, along with over 10 years of experience in hardware development for complex applications. Proficiency in robotics, electrical systems, and collaborative work is also essential.

At Kairos Power, the Senior Mechanical Engineer collaborates actively with Civil Structures Teams, Component Engineers, Reliability Engineers, and others to align efforts on testing hardware development and drive efficiency through design and testing of prototype systems. This collaborative approach ensures high-performance outcomes in reactor system projects.

The Senior Mechanical Engineer at Kairos Power primarily utilizes SolidWorks for CAD design, along with other computer methods for data acquisition and control. Familiarity with precision weldments and power electronics also plays a crucial role in their daily tasks.

Kairos Power is committed to fostering a diverse workforce that reflects the communities in which we operate. We encourage applicants from all backgrounds to apply for the Senior Mechanical Engineer position and ensure equal opportunities regardless of race, gender, or other characteristics.

When faced with mechanical design challenges in remotely operated systems, I adopt a systematic approach that includes defining the problem, brainstorming innovative solutions, and collaborating with cross-functional teams to align on the best design to ensure safety and efficiency.

Absolutely! In a previous project, I designed a remote handling system for maintenance operations that reduced downtime by 30%. My approach involved extensive identification of operational bottlenecks and iterative testing to refine the system, ultimately enhancing overall efficiency.

I utilize a hands-on approach in mentoring junior engineers by pairing them with specific projects, guiding them through design and testing processes, and encouraging them to explore innovative solutions while providing constructive feedback.

Staying current in the field is essential; I regularly attend industry conferences, participate in webinars, and subscribe to relevant journals to both learn from experts and stay ahead of new technologies that could influence our work at Kairos Power.

Collaboration is crucial in my role as a Senior Mechanical Engineer at Kairos Power. By working closely with various engineering teams, I can ensure that our designs are integrated effectively for optimal operations, which is pivotal in achieving our collective goals.

Safety is paramount in nuclear engineering. My approach involves thorough risk assessments during the design phase, ensuring compliance with all safety regulations, and promoting a culture of safety awareness within the team.

When integrating design to cost considerations, I first conduct a detailed analysis of materials and processes. I then work closely with fabrication teams to identify cost-effective yet safe methods that meet project specifications without compromising quality.

In my previous role, I utilized SolidWorks CAD software extensively for creating 3D models of mechanical systems. One project involved designing a complex assembly for a remote handling system where precision modeling was crucial for operational success.

My experience aligns closely with Kairos Power’s mission as I am deeply committed to developing technologies that drive clean energy solutions. My background in innovative mechanical design and systems integration directly supports our goal of enhancing nuclear safety and efficiency.

I employ a variety of quality checks, including thorough design reviews, simulations during the development stage, and physical inspections prior to deployment. Implementing these methods ensures the highest standards of engineering integrity and reliability.