Research Projects

All research projects at the School of Engineering. You can search keywords within Project title and filter by Research Institute.

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Project Title Principal Supervisor Research Institutes Project Summary
CAUSE - Control of wave energy Arrays Using Storage of Energy

Dr Jonathan Shek

Energy Systems

There are 3 main objectives in this project:

Answer the research question: Can energy storage radically improve off-grid and on-grid control in wave energy arrays? How can it be done? Develop an electrical array model for wave energy, with energy storage and co-ordinated control Strengthen the partnership between the UK and Chinese Institutions for future research collaboration

 

A systematic study of physical layer network coding: From Information-Theoretic Understanding to Practical DSP Algorithm Design

Dr Tharmalingam Ratnarajah

Digital Communications

High spectral efficiency is the holy grail of wireless networks due to the well-known scarcity of radio spectrum. While up to recently there seemed to be no way out of the apparent end of the road in spectral efficiency growth, the emerging approach of Network Coding has cast new light in the spectral efficiency prospects of wireless networks [1]. Initial results have demonstrated that the use of network coding increases the spectral efficiency up to 50% [2, 3]. Such a significant performance gain is crucial for many important bandwidth-hungry applications such as broadband cellular systems, wireless sensor networks, underwater communication scenarios, etc.

TRANSFER: Evaluation and Optimization of Fuel Treatment Effectiveness with an Integrated Experimental/Modeling Approach #2

Prof Albert Simeoni

Infrastructure and Environment

Over the past ten years, ca. US$ 5.6 billion has been spent on hazardous fuel reduction to treat an average of ca. 2.5 million acres per year across the United States. These expenditures represent one of the primary strategies for the mitigation of catastrophic wildland fire events. At the local scale, the placement and implementation of fuel reduction treatments is complex, involving trade-offs between environmental impacts, threatened and endangered species mitigation, funding, smoke management, parcel ownership, litigation, and weather conditions. Because of the cost and complexity involved, there is a need for implementing treatments in such a way that hazard mitigation, or other management objectives, are optimized.

IDCORE: Industrial Doctoral Centre in Offshore Renewable Energy

Professor David Ingram

Energy Systems

The drive to meet the UK’s ambitious deployment targets for offshore renewable energy technologies requires the development of new techniques and technologies to design, build, install, operate, and maintain devices in hostile environments at affordable economic cost with minimal environmental impact. It requires a supply of highly trained scientists and engineers to deliver their skills across the sector. The Universities of Edinburgh, Strathclyde and Exeter together with the Scottish Association for Marine Science and HR-Wallingford form a partnership to deliver the EPSRC/ETI Industrial Doctorate Centre in Offshore Renewable Energy (IDCORE).

SACSESS: Safety of Actinide Separation Processes

Prof Anthony Walton

Integrated Micro and Nano Systems

SACSESS kicked off on 1 March 2013. This European collaborative project involves 26 partners from European universities, nuclear research bodies, TSOs and industrial stakeholders and aims to generate fundamental safety improvements on the future design of an Advanced Processing Unit.

Modelling and measurement for oil and gas multi-phase flows - SPH-DEM fluid-particle simulation and validation

Dr Filipe Teixeira-Dias

Infrastructure and Environment

The exploration and development of deeper wells with heavier and more viscous oils, requiring greater operating pressures and more fracture to fissures to release the oils. This results in significantly increased sand content that has the potential to bring about a fundamental shift in flow behaviour. This project aims to investigate the potential – and develop – a coupled smooth particle hydrodynamics (SPH) and discrete element method (DEM) model to simulate high-pressure multi-phase flows with support from an extensive experimental programme and industrial collaboration.

An infrastructure for platform technology in synthetic biology

Prof Alistair Elfick

Bioengineering

The aim of the project is to develop integrated platform technology and an infrastructure for synthetic biology. Five British universities (Imperial College, Cambridge, Edinburgh, LSE/Kings and Newcastle), who are amongst the international leaders in synthetic biology, have formed a Consortium to address the issue. These universities already have very significant research programmes in synthetic biology (e.g. Imperial College has the EPSRC National Centre for Synthetic Biology and Innovation - CSynBI).

Towards electrochemically controlled nucleic acid-amplification strategies

Professor Anthony Walton

Integrated Micro and Nano Systems

Nucleic hybridisation is core to many biological processes and protocols used in molecular biology such as nucleic acid amplification, e.g. by PCR. This project aims to radically simplify nucleic acid amplification by driving the reaction via means of electrochemistry. To fulfil this aim, specialised expertise in biosensors, physical chemistry, biophysics and microsystems engineering is brought together.

PROTEUS: Multiplexed 'Touch and Tell' Optical Molecular Sensing and Imaging

Dr Robert Henderson

Integrated Micro and Nano Systems

This project is all about multi-disciplinary collaboration - and capitalisation in a clinical setting of the many new vistas and opportunities that will arise. As such this research programme brings together a group of world class scientists (physicists, chemists, engineers and computer experts) and clinicians to design, make and test a cutting-edge bedside technology platform which will help doctors in the intensive care unit (ICU) make rapid and accurate diagnoses that would inform therapy and ensure patients get the right treatment, quickly. While we are developing our technology platform with a focus on ICU, it will also be applicable to a wide range of other healthcare situations.

TOTALPHOTON: A Total Photon Camera for Molecular Imaging of Live Cells

Dr Robert Henderson

Integrated Micro and Nano Systems

How can we construct a high-resolution camera capable of imaging the time-of-arrival, polarisation and wavelength of each of the maximal 10Gphoton/s emitted from a labelled, biological cell? Such a measurement would capture the complete information available in the optical signal, and significantly enhance our ability to observe the organisation, movement and interactions of cellular components at molecular scales.

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