Professor of Supramolecular & Polymer Chemistry / Director of the Melville Laboratory for Polymer Synthesis

What we do

Our research interests include the synthesis of functional nanosystems, controlled polymer architectures and dynamic supramolecular assemblies through molecular recognition processes.

The underlying theme of our research lies at the interface between synthetic organic efforts on small molecules and macroscopic properties at the materials level, developing a macro-organic approach to chemistry. Dynamic supramolecular self-assembly of materials will be an area of great importance in the coming years, allowing for innovations in nanotechnology and at the biological and chemical interfaces.

We are particularly interested in exploring topics such as water-soluble and stimuli-responsive materials, template and imprinting technologies of functional polymers for use in chiral separations and enantioselective catalysis, and controlling material morphologies and architectures both in solution and in the solid state through rational design and a multi-step, hierarchical self-assembly process.

Watch Professor Scherman discuss his research

Take a tour of the Scherman Lab

Publications

Introduction: Molecular Self-Assembly.
D Pochan, O Scherman
Chem Rev
(2021)
121
Nanoparticle surfactants for kinetically arrested photoactive assemblies to track light-induced electron transfer.
K Sokołowski, J Huang, T Földes, JA McCune, DD Xu, B de Nijs, R Chikkaraddy, SM Collins, E Rosta, JJ Baumberg, OA Scherman
Nat Nanotechnol
(2021)
16
Formulation of Metal-Organic Framework-Based Drug Carriers by Controlled Coordination of Methoxy PEG Phosphate: Boosting Colloidal Stability and Redispersibility
X Chen, Y Zhuang, N Rampal, R Hewitt, G Divitini, CA O'Keefe, X Liu, DJ Whitaker, JW Wills, R Jugdaohsingh, JJ Powell, H Yu, CP Grey, OA Scherman, D Fairen-Jimenez
Journal of the American Chemical Society
(2021)
143
Mechanically matching the rheological properties of brain tissue for drug-delivery in human glioblastoma models.
CC Parkins, JH McAbee, L Ruff, A Wendler, R Mair, RJ Gilbertson, C Watts, OA Scherman
Biomaterials
(2021)
276
Imidazolium-modification enhances photocatalytic CO2 reduction on ZnSe quantum dots.
CD Sahm, E Mates-Torres, N Eliasson, K Sokołowski, A Wagner, KE Dalle, Z Huang, OA Scherman, L Hammarström, M García-Melchor, E Reisner
Chemical Science
(2021)
12
Host-Guest Induced Peptide Folding with Sequence-Specific Structural Chirality
DE Clarke, G Wu, C Wu, OA Scherman
Journal of the American Chemical Society
(2021)
143
Correction to: Identifying Efficient Transport Pathways in Early‑Wood Timber: Insights from 3D X‑ray CT Imaging of Softwood in the Presence of Flow (Transport in Porous Media, (2021), 136, 3, (813-830), 10.1007/s11242-020-01540-8)
HC Burridge, R Pini, SMK Shah, TPS Reynolds, G Wu, DU Shah, OA Scherman, MH Ramage, PF Linden
Transport in Porous Media
(2021)
137
Plasmon-Induced Trap State Emission from Single Quantum Dots.
J Huang, OS Ojambati, R Chikkaraddy, K Sokołowski, Q Wan, C Durkan, OA Scherman, JJ Baumberg
Physical review letters
(2021)
126
Identifying Efficient Transport Pathways in Early-Wood Timber: Insights from 3D X-ray CT Imaging of Softwood in the Presence of Flow
HC Burridge, R Pini, SMK Shah, TPS Reynolds, G Wu, D Shah, O Scherman, M Ramage, P Linden
Transport in Porous Media
(2021)
136
Identifying Efficient Transport Pathways in Early-Wood Timber: Insights from 3D X-ray CT Imaging of Softwood in the Presence of Flow
HC Burridge, R Pini, SMK Shah, TPS Reynolds, G Wu, DU Shah, OA Scherman, MH Ramage, PF Linden
Transport in Porous Media
(2021)
136

Head of group

Telephone number

01223 334372 (shared), 01223 331797

Email address

College