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Centre for Doctoral Training in Ultra Precision Engineering

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Novel energy delivery techniques for laser additive manufacturing from metal powders
Industrial supply of additively manufactured medical components currently falls behind the market demand. This project is geared towards improving the production rate of specific additive parts by adapting the laser delivery to optimise for that particular part by avoiding inherent physical process limitations.
Located in PhD / Current PhD Projects / Project pages
Laser processing of carbon nanotube fibers and films
This project aims to develop a scalable manufacturing route for reliable field emission cathodes. By using state of the art and innovative processes, field emission has increased by over 400%. The latest device design has been manufactured and is currently being tested at Los Alamos National Laboratory.
Located in PhD / Current PhD Projects / Project pages
Ultra precision hybrid laser-FIB platform
The integration of ultrafast lasers with metrology systems allows for closed-loop machining to occur. This allows for a sample of unknown properties to be taken inspected, machined, evaluated, and corrected in a single process which increase precision and reduces manufacturing time.
Located in PhD / Current PhD Projects / Project pages
High speed mask-less laser controlled precision additive manufacture
This PhD project has been initiated to develop a laser-based precision additive manufacturing route for the CIM-UP platform at the University of Cambridge.
Located in PhD / Current PhD Projects / Project pages
Holography as a consumer display solution
The outcomes of this project have led to development of new strategies enabling significant increases in material deposition rate in a scanning regime, and methods of implementation have been proposed. Feasibility studies on disruptive technologies have also been performed, which will form the basis of further research by subsequent students.
Located in PhD / Current PhD Projects / Project pages
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.
Located in PhD / Current PhD Projects / Project pages
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.
Located in PhD / Current PhD Projects / Project pages
Ordered Nanomaterials for Electron Field Emission
Field emission describes the emission of electrons into vacuum under an applied electric field. Current x-ray sources are energy intensive and cumbersome. Clare’s project focusses on using carbon nanotubes and field emission to replace and improve current x-ray technologies.
Located in PhD / Current PhD Projects / Project pages
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.
Located in PhD / Current PhD Projects / Project pages
Precision metrology for large freeform non-specular surfaces
There is no standard method for measuring a metre–scale non-specular freeform surface in the ‘ultra-precise’ measurement regime. This project aims to produce a measurement system to enable ultra-precise measurement of these surfaces. The system involves a number of laser trackers to measure the position of a probe as it moves over a surface to be measured.
Located in PhD / Current PhD Projects / Project pages