3 - 4 Years Experience jobs in Austria (3), Belgium (12), Bulgaria (1), Croatia (1), Czech Republic (3), Denmark (1), Finland (1), France (11), Germany (23), Greece (3), Hungary (6), Ireland (9), Italy (18), Multiple Countries (3), Netherlands (5), Norway (1), Poland (19), Portugal (6), Romania (3), Slovakia (1), Spain (9), Sweden (7), Switzerland (7) and United Kingdom (16).
You will be responsible for defining, implementing, and maintaining product assurance activities for space-grade electronic equipment. You will work closely with engineering, manufacturing, supply chain, and customers to ensure compliance with space
Coordinate cross-functional teams to ensure seamless integration of advanced technologies and the timely delivery of high-quality solutions or services. Manage stakeholders at both technical and strategic levels, ensuring compliance with industry
You will link manufacturing teams and manufacturing systems teams in the development and implementation of key continuous improvement projects to support the site start-up and ramp-up; You will form part of our Digital Factory implementation team;
Main responsibilities include developing or scouting disruptive ideas and concepts in the field of cement manufacturing with a focus on thermal process technologies, combustion and energy management; mainly open innovation, partially own development.
You will take an active role in enhancing the performance and reliability of the power supplies that drive the accelerator's electromagnets. You will also contribute to the smooth day-to-day operation by supporting maintenance and troubleshooting
Your main mission will be to contribute to the design and installation of the equipments for a new beamline dedicated to nano-tomography. Carry out feasibility studies and mechanical design studies using computer-assisted tools for components of the
Design, develop, and commission Low Level RF (LLRF) acquisition and control systems for LINAC RF power units based on FPGA technology. Implement feedback systems to ensure RF stability and reproducibility for accelerator research experiments.
You will provide expertise and assistance to ESRF technical and scientific staff in terms of high-precision positioning systems and will contribute to in-house instrumentation developments and the characterisation of mechatronics solutions. You will work
Your role will be to lead the development and construction of either complete instruments or sub-systems as part of ESO's programmes for astronomical instrumentation or technology development for the VLT and the ELT. These developments will enable
Leading and coordinating all discipline engineering teams, ensuring aligned delivery of the full engineering scope and acting as the primary interface between unit engineers, the Controls PDM, and the Subsea Projects & Services Engineering Leader.
You’ll take ownership of engineering delivery, bring people together around a common vision, and help make smart decisions that drive projects forward. This role blends technical awareness, leadership, communication, and a strong sense of accountability
Provide expert guidance on polymeric materials used in automotive lighting products and review material applications for new projects according to PDS processes; Solve material‑related issues independently or in collaboration with cross‑functional
You will contribute to the development of advanced robotic subsystems, influence future ADI technologies, and help drive growth in a rapidly expanding market segment. Develop hardware, software, and embedded systems for mobile robotics applications
Lead the construction and validation of the new dLLRF system based on Micro Telecommunication Computing Architecture (MicroTCA). Adapt the dLLRF system developed at SOLEIL Synchrotron to meet ESRF's requirements, as part of a collaborative agreement;
Depending on the mission, you will contribute to the development of new systems or support the evolution of existing ones, ensuring they remain reliable, scalable, and ready for the future. Contributing to integration, verification and validation (IV&V)
Performance of simulations for system performance. Planning and implementation of proof-of-concept analyses for the validation of technical concepts. Planning and performing integration tests at the system level; support in acceptance processes and