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Current PhD Projects

Once completing the MRes component of the course, the students then continue on to their three-year PhD. Below you'll find details of each individuals project which many have extensive support from industrial partners.

The EPSRC Centre for Innovative Manufacturing in Ultra Precision also has a number of PhD students doing their studies in this area of manufacturing. Further details of these can be found here.


 

An inkjet/ultrafast laser hybrid for digital fabrication of biomedical sensors

The project focuses on developing a novel manufacturing method for high resolution digital patterning of functional materials for low volume manufacture of sensors using inkjet printing and laser ablation. The manufacturing challenges and future capability of the hybrid technology will also be researched.

An inkjet/ultrafast laser hybrid for digital fabrication of biomedical sensors - Read More…

Anode materials for vacuum electronics devices

The project focuses on eliminating the anode’s contribution to outgassing and plasma formation caused by the near surface ionization of the outgassed neutral atoms by the desorbed electrons, thus increasing the lowest achievable pressure in vacuum electronics devices improving their efficiency.

Anode materials for vacuum electronics devices - Read More…

Atmospheric Pressure Plasma Technology For Ultra-Precision Engineering Of Optics For Applications In Aerospace, Defence And Science

New optical technologies increase the demands on the engineering specifications of optical surfaces, with manufacturing specifications of up to 1nm RMS form accuracy and 0.1nm RMS surface finish. To achieve these fabrication requirements novel ultra-precision methods must be developed. The proposed solution is microwave generated activate plasma figuring.

Atmospheric Pressure Plasma Technology For Ultra-Precision Engineering Of Optics For Applications In Aerospace, Defence And Science - Read More…

BioLaser: Establishing a high-resolution Laser Ablation Tomography Platform for UK Bioimaging Research

Biolaser is an IfM and NIAB collaboration which aims to develop a laser ablation tomography platform that provides rapid, 3D imaging of plant material down to micron or even sub-micron resolutions.

BioLaser: Establishing a high-resolution Laser Ablation Tomography Platform for UK Bioimaging Research - Read More…

Creating 3D nanomagnetic circuits for applications in spintronics

In the 3D nanomagnetic paradigm, new physics phenomena such as new types of domain wall, 3D spin texture and dynamic effects have a great potential leading to new functionalities which will find application in fields such as sensing, actuating, information storage and ‘internet of things’.

Creating 3D nanomagnetic circuits for applications in spintronics - Read More…

Design and development of solid state additive manufacturing techniques

The aim of this research project is the investigation of how cold spray, a process used to create metal coatings, can be applied to 3D structuring, and the development of a manufacturing process for the creation of bulk, high fidelity surfaces.

Design and development of solid state additive manufacturing techniques - Read More…

Design of a multi-sensor in-situ inspection system for additive manufacturing

This project aims to improve the reliability of AM processes perform in process monitoring with a novel multi-sensory system that is integrated into the build chamber.

Design of a multi-sensor in-situ inspection system for additive manufacturing - Read More…

Design, fabrication and characterisation of hierarchical branching vascular networks

The main challenge in the research of artificially engineered tissue is the vascularization of tissue. The focus of the project is to develop, with an algorithm, realistic vascular networks in a given three-dimensional space, and the experimental fabrication and study of flow within the networks.

Design, fabrication and characterisation of hierarchical branching vascular networks - Read More…

Developing in-situ monitoring, analysis and control systems for the floating catalyst carbon nanotube fibre production process

This project aims to improve the process control and production stability of large carbon nanotube fibres through the addition of new sensors and better handling of sensor outputs and control input.

Developing in-situ monitoring, analysis and control systems for the floating catalyst carbon nanotube fibre production process - Read More…

Continuing my long project ensured I was ready to hit the ground running when I transitioned from MRes to PhD. 

Clare Collins, PhD