Python állások Németországban (speciális mérnöki területek)

• Take a hands-on role in designing, building, and operating high-power cryogenic laser systems
• Shape the technology that enables the next leap in fusion research
• Drive experimental characterization and laser diagnostics
• Keep our cutting-edge labs running at the highest level of precision and safety

• Conceptual design and programming of test procedures in powertrain simulation environments using Python
• Continuous comparison of test procedures with other test resources such as powertrain test benches or test vehicles

• Driving locally disciplinary and globally technically the Raw Data Processing development (incl. planning, concept & verification)
• Leading and developing a high-performing international team, fostering individual growth and technical excellence

• Drive research on cryogenic high-power laser amplifiers and advanced system design
• Develop and operate record-breaking laser systems for fusion applications
• Publish experimental results and present at international conferences
• Mentor young scientists and engineers in a dynamic team

• Exciting projects in the field of software development in the aerospace industry
• Many fields of activity in the area of application or hardware-related development
• Participation in the design and development of complex software
• Carrying out different test procedures
• Cooperation in system integration

• Develop and integrate cutting-edge machine learning algorithms for future surgical imaging devices, utilizing multiple optical imaging modalities
• Work in a streamlined manner from a concept phase all the way to production-ready solutions

• Evaluate optical designs for mobile imaging applications and provide constructive feedback for enhancements and design guidelines.
• Develop and accurately predict the performance of complex miniaturized optical systems

• You develop optical systems for cinematography.
• You conduct optical design studies, including design and tolerance analysis, to ensure the quality of our products.
• You work on the further development of our models and methods to optimize system performance.

Support our development engineers in supervising inertial sensors during ramp-up and series production and contribute to continuous improvement through data evaluation, advanced analytics, statistics and failure analysis using Python-based toolchains...

• Define the overall test strategy and architecture.
• Design scalable test concepts for R&D and production.
• Define technical specifications for software development supporting automated testing.
• Evaluate and optimize test methodologies.
• Lead cross-functional technical discussions and teams.

• Develop, optimize, and maintain optical coupling processes for optical communication modules (fiber attach, active/passive alignment, lens/waveguide coupling, etc.).
• Design and refine automated process sequences on alignment equipment (e.g., Ficontec)

Manage technical projects focused on developing and testing customized customer solutions, gathering feedback for new products and supporting marketing activities through application notes...

• Your tasks include the preparation, execution, and evaluation of numerical flow simulations (CFD) in the field of hydraulic turbines.
• You support the selection of the meshing strategy, the numerical modeling, and the automation of the post-processing.

• Develop and implement generative AI models for design optimization
• Integrate AI algorithms with Finite Element Method (FEM) and other simulation tools
• Analyze simulation results and propose design improvements
• Collaborate with engineers to automate optimization workflows

• Supporting the setup and execution of battery tests, including installation of thermocouples and sensors
• Assisting with the collection, processing, and analysis of both laboratory test data and field data from real-world battery applications

• Develop optical measurement technologies for calibration and performance characterization of innovative long-wave infrared (LWIR) sensors
• Design calibration methods for LWIR sensors under various stimuli and environmental conditions in a state-of-the-art lab environment

• Evaluate most promising topological techniques (pixelated surfaces or shape deformation) for design optimization of metasurfaces
• Development of both methods and integration within internal software.
• Simulation and design on test metasurfaces for a given application

• Investigation on techniques to simulate/model aperiodic metasurfaces
• Determination of specific properties of aperiodic versus periodic metasurfaces for given applications (metric and merit function definition, computing cost)
• Comparison of theoretical and experimental results