Green Hydrogen Master Thesis Student - Germany

WHAT WILL YOU BE DOING?

With climate change and pollution becoming more urgent issues, we need to shift away from fossil fuels and focus on clean, renewable energy. Hydrogen is one of the most promising options out there; Water splitting in Proton Exchange Membrane Water Electrolyzers (PEMWEs) is an ideal way to store extra renewable energy such as hydrogen. This stored energy can then power fuel cell electric vehicles (FCEVs) or help electrify industries that need hydrogen (like making syngas, chemicals, or fuels). 
Are you passionate about green hydrogen and eager to contribute to cutting-edge research in PEM electrolyzers? Join us for an exciting master’s thesis project aimed at developing innovative processes and advanced cell components to enhance the efficiency and durability of PEM water electrolyzers (PEMWE). This master thesis offers an exciting chance to tackle these challenges, particularly in boosting the performance and durability of cell components. You’ll be using a mix of in-situ and ex-situ (electro)chemical and electroanalytical methods, as well as synthesis, to test out new developments related to advanced components of PEMWEs.

Your Main Tasks:

• Literature Review: Conduct an in-depth review of existing research to establish a comprehensive understanding of the state-of-the-art in PEM electrolyzer technology, focusing on processes, materials, and design advancements.
• Process Development: Design and optimize new processes to improve the performance and scalability of PEM electrolysis systems.
• Electrode and Cell Fabrication: Create and characterize advanced electrodes, assemble PEMWE cells, and prepare them for experimental evaluation.
• Performance Testing: Test and analyze the prepared cells under various operational conditions to assess their efficiency, stability, and durability.
• Team Collaboration: Actively participate in team discussions, share feedback on experimental results, and contribute to brainstorming innovative solutions for overcoming technical challenges.

We’re looking for an enthusiastic master’s student interested in a 6–9-month master thesis (open to students only). You should have a background in chemical engineering, chemistry, or materials science/engineering, and a desire to dive into electrochemistry and electrochemical methods. We value proactiveness, independence, and good English communication skills. You’ll be joining a diverse team of scientists, engineers, and technicians with a range of expertise—making this a great opportunity to learn!

This internship isn’t just about getting a closer look at your potential future career—it’s about Sungrow’s commitment to using your skills and knowledge to drive innovation. We place high value on your personal and professional growth. You’ll have strong mentorship throughout your placement and the freedom to develop your skills. Plus, we offer a fair placement allowance.

READY TO APPLY?

If this sounds like an opportunity for you, apply now through the Sungrow careers portal at [link] with your updated CV and cover letter.
Sungrow is dedicated to accelerating the transition to clean, renewable energy sources to combat climate change, which we believe is one of the biggest challenges facing humanity. If you’re ready to make a difference, this could be the perfect opportunity!

WHAT CAN YOU EXPECT FROM YOUR WORK ENVIRONMENT?

You’ll be living in the vibrant city of Munich, where historic charm meets modern innovation. Known for its lively cultural scene, beautiful parks, and nearby Bavarian Alps, Munich is perfect for outdoor adventures like hiking, skiing, and biking, while also offering easy access to top-notch museums, dining, and entertainment.
Sungrow is a leading renewable energy company focused on driving sustainability and innovation. We work with a broad range of clients— O&Ms, renewable energy developers, and EPCs—to create impactful energy solutions that improve competitiveness, boost the economy, and enhance quality of life. At Sungrow, we’re committed to making a difference through new knowledge, advanced technologies, and sustainable practices.