FEA NVH Methods Development Engineer

at  Goodyear

REQUIRED EDUCATION & EXPERIENCE:

• MSc. degree in Mechanical, Mechatronics, Civil or Aerospace Engineering, Mathematics, Physics or similar.
• Strong theoretical knowledge in structural dynamics and acoustics.
• General graduate knowledge in computational solid mechanics, multiscale methods, computational acoustics, (including nonlinear finite elements, acoustics, material models (rubber, shells), contact mechanics, validation testing and model updating).
• Knowledge of numerical simulation tools like Abaqus, Nastran or Ansys with focus on NVH Simulations.
• Use of basic development systems/practices: Git, IDEs, Agile.

DESIRED EDUCATION & EXPERIENCE:

• Ph.D. degree in structural dynamics and/or acoustics is a plus.
• Work experience of 10 years or more as a developer of Numerical Simulation or Multiphysics tools with focus on structural dynamics and acoustics.
• Hands-on experience with NVH testing and signal processing is a plus.
• Good knowledge of modern programming languages like Python and C++.

SKILLS AND ABILITIES

• Have a strong interest in solving practical FEA and simulation problems linked to NVH.
• Demonstrated ability to solve complex problems and to transfer technology to practical application.
• Experience working in groups and on multiple projects and working in a Linux environment.
• Excellent communication, interpersonal and motivational skills and experience with other programming languages (Bash, Python, JavaScript).
  Goodyear is one of the world’s largest tire companies. It employs about 74,000 people and manufactures its products in 57 facilities in 23 countries around the world. Its two Innovation Centers in Akron, Ohio and Colmar-Berg, Luxembourg strive to develop state-of-the-art products and services that set the technology and performance standard for the industry. For more information about Goodyear and its products, go to www.goodyear.com/corporate.

• Drive, maintain and support the NVH modeling strategy.
• Develop and support finite element codes with focus on solid mechanics and acoustics applications for tire performance prediction.
• Support the other engineers in the team via training, user support, debugging of design and performance concepts, and any special needs in the tire performance tools.
• Collaborate with the other engineers on the team to identify new or revised tire performance technologies, develop rules regarding those standards and technologies, document and codify such rules into knowledge manuals, and implement those rules, standards, and technologies in the tire performance manual.
• Participate in the design, development, and industrialization of tire engineering projects (applied and fundamental) which result in new tire products, processes, tools and technologies.