Job Summary Table of Hydrogen Generation PhD

Job Description Summary

🔬 Exciting opportunity for a fully funded PhD studentship at the University of Cambridge, focusing on improving the efficiency of hydrogen generation through electrolysis. This research project aims to contribute to the transition towards sustainable energy sources and is part of a larger collaboration between the Department of Engineering and the Institute for Energy and Environmental Flows.

Responsibilities

• Investigate the processes behind nucleation, growth, and separation of bubbles in alkaline electrolysers
• Conduct research at macroscopic, microscopic, and nanoscopic lengthscales
• Analyze bubble formation and behavior at various timescales under industrially-relevant operating conditions
• Develop models for bubble nucleation, growth, and separation processes
• Design and create electrode surfaces that facilitate rapid bubble removal
• Perform Optical electron and Atomic Force Microscopy-based mapping and characterisation of electrode structures
• Conduct advanced functional property imaging (surface potential, grain structure, chemical functionality)
• Determine surface properties leading to bubble formation at specific sites
• Assess the impact of surface free energy modification on bubble formation

Benefits and Perks

• 🎓 Fully funded PhD position covering student stipend and tuition fees at the UK rate
• 🔧 Access to state-of-the-art research facilities and equipment
• 🤝 Collaboration with leading experts in the field of energy and environmental flows
• 💼 Opportunity to work on a project funded by BP-ICAM (International Centre for Advanced Materials)
• 🌱 Contribute to cutting-edge research in sustainable energy solutions

Company Overview

The University of Cambridge is a world-renowned institution known for its excellence in research and education. With a rich history dating back to 1209, Cambridge has been at the forefront of groundbreaking discoveries and innovations across various fields of study. The Department of Engineering, in collaboration with the Institute for Energy and Environmental Flows, is committed to addressing global challenges in sustainable energy production.

Company Culture

🌟 At the University of Cambridge, you’ll be part of a vibrant academic community that values intellectual curiosity, innovation, and collaboration. The research environment encourages interdisciplinary approaches to solving complex problems, fostering creativity and critical thinking. As a PhD student, you’ll have the opportunity to engage with leading experts in your field and contribute to cutting-edge research that has real-world impact.

Career Growth Opportunities

📈 This PhD studentship offers excellent career growth prospects in the field of sustainable energy research. You’ll develop advanced skills in experimental design, data analysis, and scientific writing. The project’s association with BP-ICAM provides exposure to industry-relevant research, potentially opening doors for future collaborations or career opportunities in both academia and industry. Upon completion, you’ll be well-positioned for postdoctoral research positions or roles in energy-focused research institutions and companies.

Diversity, Equity, Inclusion, and Belonging

🌈 The University of Cambridge is committed to fostering a diverse and inclusive research environment. We believe that bringing together individuals from various backgrounds and perspectives enhances the quality of research and drives innovation. The university actively supports equality, diversity, and inclusion, encouraging applications from all sections of society.

Equal Opportunity Statement

The University of Cambridge is an equal opportunity employer and does not discriminate on the basis of race, color, religion, gender, sexual orientation, national origin, age, disability, or any other protected characteristic. We are committed to creating a welcoming and inclusive environment for all members of our community.

Remote Work Policy

🏢 This PhD studentship requires on-site presence at the University of Cambridge due to the nature of the experimental work involved. However, the university recognizes the importance of work-life balance and may offer flexibility in working arrangements where possible, in line with the requirements of the research project.

Application Process

1. Review the eligibility criteria and ensure you meet the academic requirements
2. Prepare your application materials, including CV, academic transcripts, and research statement
3. Submit your application through the University of Cambridge Applicant Portal
4. Identify Professor Colm Durkan as the potential supervisor in your application

Application Deadline

⏰ Info not available

How to Apply

To apply for this PhD studentship, please follow these steps:

1. Visit the University of Cambridge Applicant Portal: www.graduate.study.cam.ac.uk/courses/directory/egegpdpeg
2. Complete the online application form
3. Upload all required documents (CV, transcripts, research statement)
4. Identify Professor Colm Durkan as the potential supervisor
5. Submit your application before the deadline

Please quote reference NM42451 on your application and in any correspondence about this vacancy.

Social Media Links

🔗 University of Cambridge LinkedIn 🔗 University of Cambridge Twitter 🔗 University of Cambridge Facebook

FAQs or Additional Information

Q: When does the PhD studentship start?

A: The start date for this PhD studentship is 1 January 2025.

Q: Is funding available for international students?

A: The funding covers the student’s stipend and tuition fees at the UK rate. International students may need to cover any difference in fees. Please check with the admissions office for more details.

Q: What are the key research areas for this project?

A: The project focuses on improving the efficiency of hydrogen generation in electrolysis, specifically addressing issues related to bubble formation in alkaline electrolysers. Key research areas include bubble nucleation, growth, and separation processes, as well as electrode surface design and characterization.

Q: What is the significance of this research?

A: This research contributes to the development of more efficient hydrogen production methods, which is crucial for the transition towards sustainable energy sources. By addressing the challenges associated with bubble formation in electrolysers, the project aims to enhance the overall efficiency of hydrogen generation, making it a more viable alternative to fossil fuels.

Q: What skills will I develop during this PhD?

A: Throughout this PhD program, you will develop a wide range of skills, including: – Advanced experimental techniques in materials science and electrochemistry – Proficiency in using sophisticated microscopy tools (Optical electron and Atomic Force Microscopy) – Data analysis and modeling of complex physical processes – Scientific writing and presentation skills – Project management and problem-solving abilities – Collaboration and teamwork in an interdisciplinary research environment

By engaging in this cutting-edge research project, you’ll not only contribute to the field of sustainable energy but also develop a versatile skill set that will be valuable in both academic and industrial careers in the energy sector.

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