Dr Muhammad Sohail

My profile

Biography

Dr Sohail is a Material Chemist working in the field of Photo/Electrocatalysis and Photovoltaics. His research is focus on energy harvesting, conversion, and chemical storage technologies.  The primary objective of his research is to develop fundamental understanding of novel materials, thin-films, and devices to develop renewable photon and electron driven chemical technologies for sustainable net zero energy transition.

Beyond research, Sohail is member of the Joint Education Institute (JEI) with Hubei University where he is dedicated to educating the future  generation in the fields of energy materials and advanced instrumental techniques for characterisation. He is fostering collaboration and knowledge sharing among diverse scientific communities and cultures to enhance education, research exchange, and training.

We innovate energy materials and devices through collaboration and sharing knowledge for sustainable Net-Zero energy transition.

Interests and expertise

  • Photon and electron induced chemical transformations
  • Photo and Electrocatalysis (water splitting and carbon dioxide reduction and associated reaction mechanisms)
  • Thin-film and interface engineering (Electrode, Photovoltaics and Sensors)
  • Energy storage and conversion technologies
  • Recycling technologies for circular economy

Teaching

Undergraduate & MSc Teaching

Energy Materials (MSc Advanced Materials)

The Energy Materials for Net Zero Energy Transition course is designed to provide MSc students with a comprehensive understanding of advanced materials that are critical to achieving global carbon neutrality. As the world transitions towards sustainable and renewable energy sources, the role of energy materials becomes increasingly vital in developing technologies such as batteries, fuel cells, solar cells, and energy storage systems.

This course covers the fundamental principles of energy materials, focusing on their design, properties, and applications in technologies that enable clean energy production, efficient storage, and reduced carbon emissions. Students will explore cutting-edge materials like lithium-ion batteries, solid-state electrolytes, hydrogen storage materials, and thermoelectric devices, all of which are pivotal in driving the shift towards a net-zero energy future.

Through a combination of theoretical knowledge and practical case studies, students will gain insights into how these materials are developed, optimized, and integrated into energy systems. The course aims to equip students with the skills to contribute to innovations in sustainable energy, playing a key role in the global effort to combat climate change.

Advanced Instrumental Analysis (Undergraduate Level)

The Advanced Instrumental Analysis course introduces undergraduate students to modern analytical techniques used in the identification, characterization, and quantification of chemical compounds. This course builds on basic principles of analytical chemistry, focusing on advanced instrumentation such as spectroscopy, mass spectrometry, electrochemical techniques, chromatographic techniques, and surface characterization techniques.

Students will learn how these powerful tools are applied in real-world scenarios, from pharmaceutical development to environmental monitoring and materials science. The course emphasizes the theory behind each technique, practical applications, and data interpretation, preparing students for both academic research and industrial settings where analytical accuracy and precision are critical. Through first-hand lab experiences and problem-solving exercises, students will gain the skills needed to effectively use advanced instrumentation in complex chemical analyses.

Structure and Spectroscopy (Undergraduate Level)

The Structure and Spectroscopy course is designed to give undergraduate students a foundational understanding of how molecular structures are determined using various spectroscopic techniques. The course explores the relationship between molecular structure and the corresponding spectral data, introducing key methods such as nuclear magnetic resonance (NMR), infrared (IR) spectroscopy, ultraviolet-visible (UV-Vis) spectroscopy, and mass spectrometry (MS).

Students will learn how to interpret spectral data to deduce the structures of organic and inorganic compounds, gaining insights into both theoretical principles and practical applications. This course emphasizes the role of spectroscopy in chemical research and industry, from identifying unknown compounds to characterizing materials. With hands-on lab work and real-world examples, students will develop critical analytical skills that are essential for careers in chemistry and related fields.

Supervision

MRes and PhD Project Supervision

If you are interested in cutting edge research that will contribute to Net-Zero energy transition, our research group is always seeking highly motivated and enthusiastic students interested in MRes or PhD programmes.  From water splitting (hydrogen production) to carbon dioxide reduction, and recycling technologies, our work is focused primarily on the synthesis and characterisation of photo and electrocatalysts for both lab-scale and commercially relevant device testing. Please get in contact if you are interested in collaboration or working with us! 

Research outputs