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Research Themes

Bioinspired Materials

Biological systems and the materials they synthesise are of interest to materials scientists because they provide novel solutions to challenges involving synthetic materials. For example, toughness and strength are two material properties that are generally mutually exclusive to each other - improving the strength of a man-made material usually tends to decrease its toughness.

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Carbon Nanotubes

Having tensile strengths beyond that of any metal or high performance fibre, higher current carrying capacity than copper, and a thermal conductivity exceeding that of silver, we believe carbon nanotubes are the ultimate macromolecule. Our goal is to transport their amazing properties to the macroscale of useful materials.

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Carbon Nanotubes Processing

Over the past decade MML has developed a unique process for synthesizing carbon nanotubes via the floating catalyst route, and at the same time winding the entangled aerogel into a fibre. The process will work with a variety of different carbon feedstocks and generates a fibre with axial properties in the Kevlar range, but great robustness in bending.

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Composite Materials

These materials are made up of at least two different phases (matrix and reinforcement) that interact synergistically to bring up new properties. Our aim is to produce composites of tailored properties and functionality: from nanotube loaded polymers for static dissipation to multifunctional composite fibres for smart textiles.

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Computational Modelling

With modern computational techniques, it is now possible to predict the properties of novel materials from first principles using advanced simulation techniques. This has the advantages of being both quicker and cheaper than a trial-and-error experimentation process, and also yields detailed structural and dynamical information that can provide a stringent test of theoretical models.

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Granular Materials

Granular materials are able to flow similar to liquids, but are composed of solid particles. They are important to many industries including pharmaceuticals, construction and food. Processes dealing with granular materials often occur over varying timescales, from long storage or transportation times to powder compaction, which occurs in the blink of an eye. Issues including processing history and storage conditions have an effect on the properties of the particles leading to changes in how granular systems respond to external stimuli.

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Physical Characterisation of Nanomaterials

The Macromolecular Materials Laboratory either owns or has access to top-of-the-line equipment for characterising a wide range of physical (mechanical, thermal, electrical, structural) properties of nanomaterials.

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Bioinspired Materials
Biological systems and the materials they synthesise are of interest to materials scientists because they provide novel solutions to challenges involving synthetic materials. For example, toughness and strength are two material properties that are generally mutually exclusive to each other - improving the strength of a man-made material usually tends to decrease its toughness.
Carbon Nanotubes
Having tensile strengths beyond that of any metal or high performance fibre, higher current carrying capacity than copper, and a thermal conductivity exceeding that of silver, we believe carbon nanotubes are the ultimate macromolecule. Our goal is to transport their amazing properties to the macroscale of useful materials.
Carbon Nanotubes Processing
Over the past decade MML has developed a unique process for synthesizing carbon nanotubes via the floating catalyst route, and at the same time winding the entangled aerogel into a fibre. The process will work with a variety of different carbon feedstocks and generates a fibre with axial properties in the Kevlar range, but great robustness in bending.
Composite Materials
These materials are made up of at least two different phases (matrix and reinforcement) that interact synergistically to bring up new properties. Our aim is to produce composites of tailored properties and functionality: from nanotube loaded polymers for static dissipation to multifunctional composite fibres for smart textiles.
Computational Modelling
With modern computational techniques, it is now possible to predict the properties of novel materials from first principles using advanced simulation techniques. This has the advantages of being both quicker and cheaper than a trial-and-error experimentation process, and also yields detailed structural and dynamical information that can provide a stringent test of theoretical models.
Granular Materials
Granular materials are able to flow similar to liquids, but are composed of solid particles. They are important to many industries including pharmaceuticals, construction and food. Processes dealing with granular materials often occur over varying timescales, from long storage or transportation times to powder compaction, which occurs in the blink of an eye. Issues including processing history and storage conditions have an effect on the properties of the particles leading to changes in how granular systems respond to external stimuli.
Physical Characterisation of Nanomaterials
The Macromolecular Materials Laboratory either owns or has access to top-of-the-line equipment for characterising a wide range of physical (mechanical, thermal, electrical, structural) properties of nanomaterials.

RSS Feed Latest news

Multi-scale modelling of carbon nanotube reinforced crosslinked interfaces

Jan 28, 2017

A new paper by James A. Elliott and his Turkish collaborators Elif Ozden-Yenigun and Canan Atilgan is published in Computational Materials Science

Chirality-independent characteristic crystal length in carbon nanotube textiles measured by Raman spectroscopy

Jan 28, 2017

A new paper by John S. Bulmer, Thurid S. Gspann, Jon S. Barnard and James A. Elliott is published in Carbon.

MML Christmas Dinner 16-12-16

Dec 23, 2016

Wishing you all a Merry Christmas, from the Macromolecular Materials Lab.

High thermal conductivities of carbon nanotube films and micro-fibres and their dependence on morphology

Dec 12, 2016

A new paper by Thurid S. Gspann, Stefan M. Juckes, John F. Niven, Michel B. Johnson, James A. Elliott, Mary Anne White, Alan H. Windle is published in Carbon.

A summer tea time and farewell to Segio

Jul 22, 2016

The MML group had a nice tea time in the department on the hottest day of this summer. Dr Sergio Estravís has successfully finished his current research associate position in this summer. We wish Sergio has a greater success in the future.

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