Apply for two fully funded PhD positions in Sustainable Energy Materials at the Technological University of the Shannon (TUS), Limerick. Research advanced polymer composites and Hydrogen Storage with €2000/month stipend, tuition, and access to leading laboratories.
Fully Funded PhD Positions in Sustainable Energy Materials – Technological University of the Shannon (TUS), Limerick, 2026
Embark on a cutting-edge research journey with two fully funded PhD positions in Sustainable Energy Materials at the Technological University of the Shannon (TUS), located in Limerick, Ireland. Hosted by the Hydrogen Energy Innovation Research Group, these prestigious doctoral roles focus on advanced polymer composites and innovative Hydrogen Storage materials, offering scholars the opportunity to address crucial challenges in the global clean energy transition. With a €2000/month stipend, full tuition coverage, and access to world-class facilities, this program provides a robust platform for ambitious researchers aiming to shape the future of sustainable energy technologies.
Drive Innovation in Clean Energy Technologies
Hydrogen is rapidly emerging as a key enabler of the global energy transition. The Hydrogen Energy Innovation Research Group at TUS is at the forefront of developing next-generation materials and storage systems for clean hydrogen energy applications. Research in this program integrates materials science, mechanical engineering, and energy systems engineering, giving PhD candidates exposure to interdisciplinary collaborations and industrial-scale solutions.
TUS’s focus on advanced polymer composites for hydrogen storage directly addresses the pressing need for safe, efficient, and scalable storage systems. Students will engage in pioneering research on lightweight structural composites, nanomaterials for hydrogen adsorption, and high-performance containment systems, contributing to the acceleration of hydrogen-based energy solutions worldwide.
Comprehensive Funding and Cutting-Edge Facilities
The PhD positions come with outstanding financial and academic support to enable focused, high-impact research:
-
Monthly stipend of €2000, ensuring financial stability and allowing full dedication to research.
-
Complete tuition fee waiver, removing financial barriers to advanced education.
-
Access to world-class laboratories and equipment, including materials characterization tools, spectroscopic systems, computational modeling clusters, and energy simulation platforms.
-
International and industry collaborations through ongoing projects with European energy consortia, government agencies, and global clean tech companies.
This combination of resources empowers doctoral candidates to push the boundaries of sustainable energy materials research.
Eligibility Criteria for Applicants
TUS seeks highly motivated and academically strong candidates who can contribute to its mission of advancing clean energy innovation. Applicants should demonstrate:
-
A Master’s degree (or exceptional Bachelor’s degree with research experience) in Mechanical Engineering, Materials Science, Chemical Engineering, or closely related disciplines.
-
Research experience in nanomaterials, composites, hydrogen systems, computational modeling, or spectroscopy, with evidence of prior project work or publications being advantageous.
-
Strong analytical, problem-solving, and experimental design skills to contribute to multidisciplinary research challenges.
-
Excellent English communication abilities and a collaborative mindset to thrive in international research teams.
Application Process and Required Documents
Interested candidates must compile the following documents into a single PDF and send it to amit.haldar@tus.ie with the subject line “SEAI_Hydrogen”:
-
Curriculum Vitae (CV) with detailed academic background, skills, publications, and references.
-
Cover Letter stating research interests, motivation, and how your background aligns with sustainable energy materials and hydrogen storage.
-
Academic transcripts and degree certificates (undergraduate and postgraduate).
-
Completed TUS application form, available from the university’s graduate admissions portal.
Shortlisted candidates will be invited to a virtual interview to further discuss their research fit and potential contributions to the group.
Transformative Research Environment at TUS
The Technological University of the Shannon fosters an environment where academic excellence meets real-world innovation. PhD candidates will benefit from:
-
Close mentorship from leading experts in materials science, energy systems, and mechanical design.
-
Opportunities to participate in industry-linked projects and international collaborations, broadening career networks and research impact.
-
Training in scientific writing, data analytics, and research dissemination, preparing graduates for impactful careers in academia, industry, or policy.
-
Access to state-of-the-art energy laboratories and advanced computational modeling facilities for comprehensive experimental and theoretical research.
Graduates of this program will be well-positioned for roles in clean energy industries, advanced manufacturing, hydrogen technology companies, and research institutes worldwide.
Why Choose TUS for Your PhD in Sustainable Energy Materials?
This is a rare opportunity to earn a fully funded PhD while driving innovation in sustainable energy technologies. With its strong focus on hydrogen energy, materials engineering, and collaborative industry projects, TUS provides a dynamic platform for students to develop cutting-edge technical expertise, leadership skills, and a global professional network. Located in Limerick, a vibrant hub of innovation and culture, TUS offers a supportive and stimulating environment for international researchers.
Apply now to join the Hydrogen Energy Innovation Research Group at the Technological University of the Shannon. Begin your fully funded PhD in Sustainable Energy Materials in 2026 and play a leading role in shaping the world’s clean energy future through transformative research in advanced polymer composites and hydrogen storage systems.