Master Student – Micromagnetic properties (m|f|d) at Miltenyi Biotec

Bergisch Gladbach, North Rhine-Westphalia, Germany -

Full Time

Start Date

Immediate

Expiry Date

03 Jun, 26

Salary

0.0

Posted On

05 Mar, 26

Experience

0 year(s) or above

Remote Job

Yes

Telecommute

Yes

Sponsor Visa

Skills

Magnetic Characterizations, Micromagnetic Simulations, MEMS Technology, Micro-fabrication, Biomedical Device Applications, Magnetism, SQUID, VSM, COMSOL, SEM, Problem-Solving, Communication, Organizational Skills, Analytical Skills

Industry

Biotechnology Research

Description

Company Description For 35 years, we have been developing cutting-edge science and technology to empower biomedical research and personalized medicine. We combine excellence from more than 60 disciplines in natural sciences, engineering, and informatics to make a significant contribution to biomedical sciences. We encourage a creative working environment driven by pioneering spirit – to seek new horizons – boldly envisioning the future and turning it into reality. Today, more than 4,700 experts from over 50 countries contribute to our sustainable success. Job Description This position offers you a unique opportunity to obtain your master’s degree while gaining insight into cutting-edge MEMS technology. You will contribute to magnetic characterizations and micromagnetic simulations to perform systematic studies of how geometry, material composition and crystallographic influence an micro-actuator performance. You will present and discuss your results with your team as well with the academic collaborator. The findings of your study will contribute to optimization strategies for the next generation of MEMS-based cell sorting devices used in cancer research. Your workplace is Bergisch Gladbach. The project is a collaboration with the research institute Forschungszentrum Jülich. Qualifications You are an enrolled Master’s student in physics, materials science, electrical engineering, nanotechnology, biomedical engineering, or a related discipline and passionate about science. You have basic knowledge in micro-fabrication, biomedical device applications, magnetism, material science, magnetic characterization methods (SQUID, VSM, etc.) and simulation tools (COMSOL, SEM). You have demonstrated your ability to work both independently and in an interdisciplinary team with excellent problem-solving and communication skills. You have good organizational and analytical skills. Your motivation, teamwork spirit and excellent written and spoken English skills complete your profile. Additional Information What we offer A modern workplace and exciting opportunities in the development of technologies with a secure future. Diversity: International teams and cross-border intercultural communication Room for creativity: It’s the most clever solution that we always strive for Health & Sport: We offer a wide range of corporate sports activities and health provision Miltenyi University: A clever mind never stops learning, take advantage of our inhouse Training Academy Diversity is the bedrock of our creativity. Our mission: To innovate treatments and technologies and tackle the world’s most serious health challenges. And that’s why we connect the dots –across various disciplines, linking different perspectives, skills, and abilities. You and your talent are welcome here in our inclusive and collaborative environment. So come as you are. Regardless of gender, sexual identity, age, ethnicity, religion or disability. Become part of our team and focus on pushing the borders of medicine. We are looking forward to your application You have the skills and qualifications required for this position, please use the link to send us your documents (cover letter, resume, references and certificates). Please give us an idea of when you could start and what your salary expectations are. Department: MEMS based Products Location: Bergisch Gladbach Functional Area: Engineering Company: Miltenyi Biotec B.V. & Co. KG

Responsibilities

The role involves contributing to magnetic characterizations and micromagnetic simulations to systematically study how geometry, material composition, and crystallography influence micro-actuator performance. Findings from this study will support optimization strategies for next-generation MEMS-based cell sorting devices used in cancer research.