Mechanical Engineer I-II

The Mechanical Engineer I-II at Lila Sciences is responsible for designing and implementing bench-scale robotics and mechanical systems for both life and physical science automation applications. This includes CAD design and analysis using SolidWorks, creating and validating designs through rapid prototyping methods like 3D printing, and collaborating with cross-functional teams to integrate mechanical designs with software and controls.

Candidates for the Mechanical Engineer I-II role at Lila Sciences are expected to have a Bachelor's degree in Mechanical Engineering, Robotics, or a related field. The position is suitable for individuals with 0-5 years of mechanical engineering experience, and proficiency in SolidWorks CAD design is essential. Additionally, familiarity with automation systems and robotic integration is highly preferred.

In the Mechanical Engineer I-II position at Lila Sciences, you'll play a pivotal role in cross-functional collaboration. By designing innovative robotic and mechanical systems, you will directly contribute to various team projects that leverage AI and automation, enhancing research workflows across life sciences and physical sciences. This collaborative atmosphere means your insights will be valued and integrated into larger project goals.

As a Mechanical Engineer I-II at Lila Sciences, you'll develop a wide range of valuable skills. You'll enhance your CAD design proficiency, learn about rapid prototyping techniques, and gain hands-on experience with advanced mechanical testing and automation systems. You'll also cultivate your teamwork and problem-solving skills in a collaborative environment that fosters creativity and innovation.

A Mechanical Engineer I-II at Lila Sciences can expect to work on a variety of innovative projects involving the design of bench-scale robotics and automation systems. These projects span different scientific domains, allowing you to engage in creating solutions that help in therapeutic discovery and development, making a significant impact on scientific research methods.

When answering this question, be ready to share specific projects where you used SolidWorks, highlighting your design process and any challenges you overcame. Mention your familiarity with features like 3D modeling, assemblies, and GD&T principles to demonstrate both your technical proficiency and problem-solving skills.

Emphasize your communication and teamwork skills. Provide examples of successful collaborations, mentioning specific roles of other team members like scientists and engineers. Discuss how you adapt your ideas to meet the input and feedback from these diverse perspectives.

Showcase your time management skills by outlining strategies you use to organize tasks. You could explain how you utilize tools like project management software, set milestones, and regularly reassess priorities, ensuring you stay on track even when working on multiple projects.

Detail a specific design challenge, discussing the context, your thought process, and the steps you took to arrive at a solution. This should highlight your technical skills, creativity, and resilience in overcoming obstacles.

When responding, talk about any relevant experiences you have with automation projects, discussing your role and the technologies you interacted with. If you've worked on robotic systems, detail specific tasks and your contributions to the project.

Discuss your hands-on experience with techniques like 3D printing or laser cutting. Sharing specific projects or products you've worked on will enrich your answer, demonstrating both your capability and enthusiasm for prototyping.

Mention professional development activities such as attending workshops, joining engineering societies, or reading industry publications. This reflects your commitment to continuous learning, which is crucial in an innovative environment.

Outline your systematic approach, starting from gathering requirements to conducting initial concept designs. Stress the importance of collaboration with team members to refine ideas based on scientific needs and practical considerations.

Discuss your understanding of safety regulations and quality management systems, and provide examples of how you’ve implemented these standards in previous projects to emphasize your commitment to safety and quality in engineering.

Highlight your familiarity with PLM tools and methodologies. Discuss how you’ve contributed to product lifecycle stages in past experiences, focusing on how you managed product data and collaborated across functions to drive projects to completion.