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Functional Molecules and Materials

Selective assembly of molecules and materials and controlled and predictable manipulation of their properties. This is at the heart of our research to address today’s global challenges.

Expert chemists

The combined expertise of inorganic, organic and physical/theoretical chemists enables collaborative exploration.

We have specialists in synthesis, spectroscopy, microscopy, electrochemistry and theory/computation.

The academic team work across the following themes:

  • molecular & Materials Design
  • nanoscience
  • bio-based Materials
  • health, Energy & Environment
Our work

Our work addresses:

  • fundamental scientific questions
  • societal challenges
  • advance technologies of economic importance
Active projects

We have active projects that involve:

  • synthesis (Doherty, Errington, Fulton, Houlton, Izod, Knight, Pike)
  • covalent, supramolecular and co-ordination polymers (Doherty, Fulton, Knight, Houlton)
  • DNA-based materials (Houlton, Horrocks, Tuite, Pike)
  • catalysis and reactivity (Doherty, Errington, Houlton, Izod, Knight)
  • spectroscopy, photochemistry and optical trapping (Tuite, Carruthers)
  • molecular and nano-electronics (Houlton, Horrocks, Pike)
  • Computation and theory (Izod, Houlton, Horrocks)
  • high-resolution microscopy (Horrocks, Houlton, Tuite, Pike)
  • electrochemistry (Horrocks, Errington)
  • diagnostics and sensing (Houlton, Horrocks, Pike, Tuite)
Our teaching

Research-inspired teaching is a core principle in our education programmes. Teaching activities are making use of the expertise in the group.

We offer modules in catalyst application and design and structural methods.

Excellent analytical facilities provide state-of-the-art learning environments for our students, supporting laboratory work.

Projects in the group range from BSc dissertations to MChem and MSc projects.

Our contributions to the field

Examples of important contributions made by the Functional Molecules & Materials Group include:

  • Discovery of new bonding modes between group 14 and phosphorus (Angew. Chem. Int. Ed. 2017, 56, 5593-5597)
  • Insights into the formation of supramolecular DNA-polymer nanowires (J. Am. Chem. Soc. 10.1021/ja500439v (2014)
  • Guiding Polymers with DNA” - molecular-recognition induced polymer-crosslinking (Angew. Chem. Int. Ed. 2017, 56, 12913-12918)
  • Design of a switchable DNA-like molecular wire (Nat. Commun. 2017 8 720)
  • Synthesis of designer DNA for nanomaterial fabrication and molecular diagnostics (Angew. Chem. Int. Ed. 2015, 54(31), 8971-8974);
  • Discovery of the intact sublimation of alkyl-capped silicon nanocrystals (Nat. Nanotechnol. 2, 486 (2007), Science Editor’s Choice 2007, 317, 1011)
  • Demonstration of the lack of acute toxicity of silicon nanocrystal fluorescent probes for cell biology and their internalisation by a cholesterol-dependent mechanism (Small, 2009, 5, 221–228)

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Themes

We work across the themes of molecular and materials design, nanoscience, bio-based materials and health, energy and environment.

Molecular and Materials Design

We focus on the creation of new types of molecule, solid, gels and liquid. We do this through rational design or self-assembly techniques.

Examples of systems under investigation include:

bonding regimes
• metal-based polymers
catalytic systems
• adaptive and responsive polymers
self-healing gels
• anisotropic materials

Research leaders

Bio-based Materials

We integrate biological molecules with synthetic or abiological components. It provides an intriguing approach to new materials.

There is a long-standing interest in synthesis, use and modification of DNA. This includes its components.

We develop new types of materials such as:

We are exploring protein-polymer hydrogels. We look at these as non-stick scaffolds for tissue and cell culture applications.

Research leaders

Nanoscience (including nanoelectronics)

We work on the design, synthesis and characterisation of nanomaterials with novel properties.

Nanomaterials are those with at least one dimension in the range 1-100nm. They have unusual properties (electronic, magnetic, chemical, optical) due to their reduced dimensions.

Examples of 0, 1 and 2-dimensional materials feature in our research. For example, we explore Si quantum dots for use as non-toxic luminescent probes in biology.

Conductive one-dimensional materials, nanowires, are of particular interest. We prepare and study charge transport in DNA-templated nanowires and metal-nucleobase co-ordination polymers.

A recent example is an Au(I)-thioguanosine polymer. It's conductive upon oxidative doping.

We explore atomically thin two-dimensional materials. These include:

• molecular sheets prepared from coordination polymers
• the use of graphene-derived inks in biomolecular-sensing

Research leaders

Health, Energy and Environment

New technologies is a strong theme of the group. Many of our research projects seek to underpin such advances.

We do this by producing new molecules and materials. We develop understanding of their properties.

These contribute to societal challenges such as health and energy and environment.

Our research appears in projects on materials for:

  • medical diagnostics, particularly sensors for aberrant genes associated with diseases such as cancer
  • water-treatment membranes
  • anti-biofouling coatings, which addresses problems relevant to medical implants
  • shipping vessels, subject to unwanted biofouling that can impair their performance

We develop multifunctional catalysts based on polymer-immobilised ionic liquids. These are for biomass conversion. Related chemistry is providing access to new functional membranes.

We research electrically conducting nanowires that aid in extreme miniaturisation of electronic components. Sensing elements for environmental and medical applications make use of these components.

Research leaders

Collaborations

Our academics within the Functional Molecules and Materials group have strong links with both industry and academia.

Extant and previous collaborations include:

EU-2020 - ITN Innovative Nanowire DEvicE Design

We are partners in the EU-2020 – ITN Innovative Nanowire DEvicE Design with:

  • Durham University
  • EPFL
  • CNRS Institute Microelectronics & Microsystems
  • CNR Trieste
  • University of Copenhagen
  • Lappeenranta Institute of Technology
  • CNRS Centre for Nanosciences and Nanotechnology
  • Lund University
  • Liverpool University
  • Université Paris-Sud
  • CNRS ISEN
  • ITMO University

EU RISE DNA-SURF

We co-ordinate the EU RISE DNA-SURF. This focuses on molecular diagnostics through DNA modification and interfacial engineering.

DNASURF is a H2020 MSCA RISE international exchange project to develop innovative biomedical products for DNA diagnostics.

Participants are:

Europe

International

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Academic partners

Our research projects can often have an interdisciplinary approach. This sees our academics collaborate with other Institutes/Schools and Universities.

Academic collaborations with internal and external groups include:

MChem projects

Our projects and the primary investigators are listed here.

  • Carbene Decorated Polymer Immobilised Ionic Liquid Stabilized Ruthenium Nanoparticles: Synthesis and Applications in Catalysis - Doherty
  • Phosphine-Decorated Polymer Immobilised Ionic Liquid Stabilised Gold Nanoparticles - Doherty
  • N-Heterocyclic Carbene Modified Polymer Immobilised Ionic Liquid Stabilised Palladium Nanoparticle Catalysts - Doherty
  • Electron-rich polyoxometalates - Errington
  • Synthesis and Reactivity of Chloro-Titanium Substituted Polyoxometalates - Errington
  • Polyoxometalate-based hybrid materials for oxidative catalysis and water purification - Errington
  • Synthesis and characterisation of a stimuli responsive hydrogel - Fulton
  • Developing semi-interpenetrating gels based on Caf1 Protein Polymer - Fulton
  • Compositional Biasing in polymer-based “composomes” - Fulton
  • Understanding the binding of Ag+ ions and Ag+ Nanoclusters to single stranded DNA - Horrocks
  • Exploiting Electrochemical Properties of Polyoxometalates for Waste Heat Harvesting - Horrocks
  • Synthesis and characterisation of DNA-template nanowires using different semiconductors - Horrocks
  • Self-assembly of fluorescent chiral Coordination Polymers - Houlton
  • Synthesis and characterisation of silver arrays with pyrimidine ligands - Houlton
  • Single Molecular Sheet Transformations from Single Crystals of Novel Coordination Frameworks based on M(II)-N Bonds - Houlton
  • Synthesis and structural characterisation of homoleptic samarium complexes with extremely hindered dialkylphosphide ligands - Izod
  • Alkyl-substituted Diphosphatetrylenes - Izod
  • Synthesis and Application of Planar Diphosphaphosphenium ion: A Potential Transition Metal Mimic - Izod
  • Investigations of Fluorescent Boranil Compounds for Applications in Polymers - Knight
  • Synthesis of new Boranil-based fluorescent dyes in gram scale quantities - Knight
  • Towards the enzymatic synthesis of custom-length functionalised DNA - Pike
  • An assessment of fluorescent probes for use in diagnostics of Alzheimer’s and Parkinson’s disease - Tuite
  • Investigation into the Binding Capabilities of Fluorescent Probes with Amyloid Proteins for Diagnostics - Tuite
  • Binding and photophysics of novel Ru(II) and Ir(III) complexes with DNA - Tuite
Publications

2018

2017

2016

2015

2014

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