CASE Industrial Studentships
Industrially Relevant Research
Each year, EPSRC allocates Industrial CASE PhD Studentships for PowdermatriX.
These funded awards support a British student undertaking industrially
relevant research towards a PhD at any UK university.
The Industrial CASE scheme enables a company to take the lead in defining
projects for students and selecting an academic partner of their choice.
Projects are jointly supervised by the academic and industrial partners.
The company must provide financial support of around £20,000
over the 3 year studentship. In certain instances, more than one organisation
may be able to sponsor a project.
The portfolio of PowdermatriX CASE projects has resulted from widely
publicised annual calls for proposals. The PowdermatriX Research Committee’s
objective of attracting applications from all comers has proved successful
with a mixture of established PowdermatriX partners and newcomers actively
involved in projects.
The common features of each project are industrial relevance coupled
with technical excellence in the field of particulate engineering and
science.
The call for proposals for CASE Awards usually opens in February. If
you want more information on future calls contact Stuart MacLachlan
on stuart.maclachlan@ceram.com
Current Industrial CASE Projects
We currently have twelve CASE projects evaluating a wide range of topics
including from free-form manufacturing, fuel cells, drug delivery and
nanoparticulate materials.

The two CASE studentships awarded in 2003 are showing positive results for the sponsors.
Characterisation of Ceramic and Metallic Nanopowders
Sarah Maude at IPTME, Loughborough University, is applying a range
of analytical techniques to characterise nano-powder materials prepared
by QinetiQ nano-materials using their Plasma preparation route. The
challenge is to establish meaningful correlations between measured properties
in the final powder and the variables associated with the plasma production
route.
Already, Sarah has made two significant contributions. In one instance
Sarah's analysis has improved QinetiQ's appreciation of the composition
of a given spherical powder thus contributing to the way the product
is marketed to target customers.
Sarah has also produced some interesting data on the sintering of a
specific oxide which has shown evidence of grain growth during synthesis.
This in turn has led to the need for investigations on additives to
pin grain boundaries. Once again, this provides useful information for
QinetiQ with which they can positively engage with customers when working
towards delivery of bespoke materials.
Improved Mechanical Properties of Rapidly Manufactured
Parts
Hadi Zarringhalam of Loughborough University’s Rapid Manufacturing
Research Group is investigating cutting edge ‘Selective Laser
Sintering’ (SLS) ‘Rapid Manufacturing’ technology
in an already very successful CASE-funded project through the PowdermatriX
Faraday partnership.
The aerospace industry has already benefited greatly by the ability
of Rapid Manufacturing to drastically reduce part count and to create
previously un-manufacturable geometries, however mechanical properties
of parts need to be improved. Hadi has been studying ways to improve
the strength and ductility of components for military aircraft by controlling
crystallinity and microstructure. Not only have mechanical properties
been improved but Hadi’s work is also providing a new fundamental
understanding of the science behind SLS technology.
Hadi said “I am thrilled that my work in the Rapid Manufacturing
Research Group has generated such beneficial practical results so quickly.
There are great possibilities in this field and I hope I will be able
to contribute much more in the future”.
