Supramolecular, Interfacial and Synthetic Chemistry (SISC)

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Research

Embark on a journey through the vast research landscape of the SISC group at the University of Kent.

Our 16 distinct research avenues represent a spectrum of scientific inquiry, from the detailed world of atomic structures to the grand expanses of astrochemistry and biosciences. We bridge the realms of molecular chemistry and supramolecular science, pushing the boundaries to foster intricate innovations and comprehensive applications. Our holistic and interdisciplinary approach is dedicated to advancing the frontiers of knowledge from the smallest scale to the broadest impacts. Join us as we explore these dynamic and transformative fields, contributing to the mosaic of scientific discovery.

As part of our commitment to global collaboration, we invite you to learn more about our international partnerships and contributions through SISC Global.

Current Research Lines

We are proud to offer a range of opportunities for undergraduates, postgraduates, and postdoctoral researchers, encompassing both funded and non-funded positions. Whether you are just beginning your academic journey or are looking to further your research career, we invite you to explore the possibilities within our dynamic and supportive environment. If you are interested in joining our innovative team and contributing to the frontiers of scientific exploration, please do not hesitate to contact us. We look forward to potentially welcoming you to SISC and working together towards groundbreaking discoveries.

Anticancer Therapy:
Investigating next-generation treatments and exploring the molecular mechanisms of cancer to develop more effective and targeted therapies.

Antimicrobials:
Designing new compounds to combat antimicrobial resistance and developing novel strategies to treat infections.

Astrochemistry:
Investigating the chemical processes occurring in space to understand the molecular nature of the universe and the possibility of life beyond Earth.

Bioengineering and Nanocomposite Materials:
Delving into the interface of biology and materials science to develop novel biohybrids and nanocomposites with enhanced properties and functionalities.

Bonding and Electronic Structure:
Probing the fundamental aspects of chemical bonding, electronic structure and quantum theory to design, predict and explain the behaviour of molecules and materials.

Catalysis and Sustainability:
Designing catalysts that accelerate and direct chemical reactions, aiming for more sustainable and efficient processes in industry and research.

Chemistry Education:
Enhancing the understanding and teaching of chemistry concepts through innovative pedagogical methods and research.

Forensic Chemistry:
Applying cutting-edge analytical computational and forensic methodologies to investigate and solve criminal cases by analysing physical evidence, such as drugs, toxins, and trace materials, to support the justice system.

Fluorescent Materials:
Developing materials that emit light upon excitation, with applications ranging from sensing and imaging to lighting and display technologies.

Main-Group Chemistry:
Uncovering new reactions and applications of main-group elements in various fields including materials science and organic synthesis.

Multiscale Modelling:
Integrating different scales of modelling to comprehensively understand materials and biological systems from atoms to macroscopic properties.

Polymer Chemistry:
Exploring the synthesis, characterisation, and application of polymers, from biodegradable plastics to smart materials with responsive features.

Porphyrin Chemistry:
Exploiting the versatile chemistry of porphyrins to develop new materials, catalysts, and therapeutic agents.

Radiopharmaceuticals:
Investigating radioactive compounds for diagnosis and treatment, enhancing the precision and effectiveness of medical imaging and therapy.

Smart Materials:
Creating materials that respond to external stimuli, offering innovative solutions in technology, medicine, and beyond.

Supramolecular Chemistry:
Assembling molecules into complex structures through non-covalent interactions, exploring their potential in areas like molecular recognition and self-healing materials.