
معرفی
Dr Samuel Rowley-Neale is a Senior Lecturer in Electrochemistry at Manchester Metropolitan University (MMU), specializing in electrochemical techniques for clean energy storage and environmental sensing. His research focuses on integrating 2D materials with 3D printing to develop rapid, on-site hydrogen production systems for disaster relief and advanced electrochemical sensors for heavy metal detection in water. He holds a Zoology degree and an MSc in Environmental Management and Sustainable Development, driving collaborations with SMEs on renewable energy solutions. Beyond academia, he is CEO of a distillery applying chemical processes from his studies and collaborates with horologist Dr Roger Smith OBE on self-servicing watch technology using nanomaterials.
Education:
- Bachelor of Science (Zoology)
- Master of Science in Environmental Management and Sustainable Development
Research Interests:
His work spans clean energy storage via additive manufacturing of electrolysers, environmental sensor development for water quality, and application of 2D nanomaterials in energy systems. He emphasizes practical, scalable solutions for sustainability challenges, particularly in hydrogen energy and heavy metal contamination.
Article Trends: His publications highlight advancements in 3D-printed electrocatalytic platforms, 2D material integration for energy storage, and novel biosensor designs using carbon nanotubes and graphene. Key themes include improving hydrogen evolution reaction efficiency and creating field-deployable analytical tools.
Advising & Grants: While no specific students are listed, he actively engages in industry partnerships to translate research into real-world applications like hydrogen fuel cells and environmental monitoring devices. His work with local SMEs underscores a commitment to applied sustainability research.
Labs & Collaborations: Leads projects in MMU's electrochemistry facilities and collaborates with external partners such as Dr. Roger Smith on horological innovations, merging electrochemistry with mechanical engineering for self-maintaining timepieces.




