Centre for Materials Research: Past and Futures - PowerPoint PPT Presentation

1 / 17
About This Presentation
Title:

Centre for Materials Research: Past and Futures

Description:

What possible roles/structures were considered? A Materials Department? ... Right environment to tempt top younger scientists with Royal Society, EPSRC and ... – PowerPoint PPT presentation

Number of Views:26
Avg rating:3.0/5.0
Slides: 18
Provided by: doreens6
Category:

less

Transcript and Presenter's Notes

Title: Centre for Materials Research: Past and Futures


1
Centre for Materials Research Past and Futures
  • Marshall Stoneham
  • CMR meeting 14 March 2007
  • file dotgtsciadmingtcmrgtcmroverview

2
Initial Thoughts the 1995 sceneWhat possible
roles/structures were considered?
  • A Materials Department?
  • A mechanism for large equipment grants?
  • A network to aid access to existing equipment?
  • A network crossing traditional lines
  • (a) to formulate novel grant applications,
  • (b) to help create effective fixed centres
    like LCN
  • A route to new teaching opportunities, e.g.,
    M.Res Continuous Professional Development
  • A way to enhance visibility of UCL strengths

3
Issues 1 Making Connections
  • Research Links across UCL 20-25 units of
    assessment included materials activities in the
    last RAE. These ranged from basic work to
    full-scale engineering.
  • Research Links across London LCN exists as a
    working example, with Imperial College. QMW, KCL
    and other London institutes would probably
    welcome good ideas to collaborate. The Thomas
    Young Centre (TYC) is attempting this.
  • International Research Links Many possible links,
    notably with North America and the European Union
    (the TYC is attempting this as well)
  • Research links can support teaching initiatives.
  • Formulating national policies, e.g., Foresight
    and the Materials Modelling initiatives of EPSRC

4
Issues 2 Large resources
  • New scientific or technical opportunities
  • New opportunities can arise fast. They are often
    interdisciplinary.
  • Good networks can make it easy to put teams
    together. But there needs to be enough resource
    (and enough uncommitted resource) to make things
    happen.
  • Equipment or other major core feature
  • If a Centre is to be more than the sum of its
    components, it needs a core that is substantial
    and (ideally) unique. Most materials departments
    have large items of analytical equipment.
    Research Councils favour large sets of kit (like
    electron microscopes, for instance) at just a few
    sites.
  • The scientific diversity of UCL is a strength
    in all ways except one big kit often correlates
    with very specific types of scientific programme.
    Big kit is probably better based in centres like
    the LCN

5
Issues 3 The outside world
  • Interactions with outside funding bodies Not
    only Research Councils, but industry, the
    European Union, government, and local government
    bodies. I regularly arranged visits of the EPSRC
    Materials managers.
  • External visibility Not just ego-trips, but
    getting the right international recognition as a
    means to better RAE and similar gradings.
    Proposing people for prizes and Plenary/Invited
    talks is important.
  • Established routes for funding to protect IPR
    UCL does not have sufficient funds EPSRC refuses
    to fund IPR protection
  • Capturing the student market Not just
    undergraduates or Masters students, but also
    Teaching Company, continuous professional
    development, and so on. CAIS seems successful
    with some of these routes.
  • Outreach Outreach is important to external
    visibility we have probably not done enough.

6
Summary of Issues 1
  • Core scientific and technical platforms identify
    broad areas where UCL should be the place leading
    scientists worldwide want to know (and funding
    bodies want to fund). These platforms will
    evolve, so we should not be rigid.
  • Linking physical and biomedical. Routes such as
  • (a) Walkabouts (CAIS does these)
  • (b) The Derek Roberts informal meeting
  • (c) The free wine at lunchtime solution

7
Summary of Issues 2
  • Even as a Centre for Materials Research, there
    must be an educational role. This could emphasise
    continuing professional development
  • Finance. The CMR should be able to influence
    College support (a) to finance relationships
    across UCL, (b) for modest exploratory projects,
    and (c) to ensure that existing UCL organisation
    doesnt get in the way (e.g., overheads issues
    when an external organisation is prepared to fund
    the major costs of positions).

8
Possible models
  • The Network component is crucial. UCL has a
    splendidly cooperative culture.
  • In at least two materials areas UCL has unique
    capability (leading edge worldwide) spanning UCL
    materials research Materials Modelling and
    Visualisation. These are examples of platforms
  • These two areas could constitute the core of CMR.
    They share common ground and can be mutually
    beneficial.
  • In addition, there should be a family of
    affiliated initiatives that exploit the core.
    These should span physical and biomedical
    sciences
  • To what extent should we seek London Centre
    status? LCN is a good example, also the Thomas
    Young Centre

9
Summary Simple Actions
  • Informal meetings (e.g., wine for lunch)
  • Grouped talks (say 2-3 talks in an afternoon)
  • Small discussion meetings of interesting ideas
    (the Derek Roberts solution)
  • Walkabouts visits to as many as possible of the
    RAE units of assessment that have materials work
    (cf. CAIS/Duncan Bull)
  • Identify and build on strong UCL science
    platforms
  • Get EPSRC and other relevant Research Council /
    OST or DTI managers to visit
  • Update the equipment list (e.g., from UCL
    insurance)

10
(No Transcript)
11
Some of the options suggested
  • Materials discovery (Des McMorrow) Novel
    magnetic, electronic properties etc. Most of the
    world follows the Japanese. We have the basis for
    a Centre for Materials Discovery
  • Integrate with other initiatives (Paul McMillan)
    Relate to the Materials Chemistry Centre (UCL
    Chemistry, Chem Eng, Birkbeck Industrial
    Materials Chemistry, with some space and
    joint-use kit), including the Visualisation
    Centre.
  • Umbrella for LCN new UCL/IC centres (Aeppli)
    e.g., Materials Synthesis (encompassing
    non-'nano' activities in chemistry and elsewhere)
    or Materials Systems Modelling ( transcending
    nanotech but could encompass its modelling needs
    as well as those of other centres/departments
    ranging from pharmacology to earth sciences.
  • Biomedical materials (Brown) with links across
    London, and including modelling, measurement
    (CAIS) and the LCN nano aspects.
  • Holistic approaches to materials, inspection and
    modelling high-value systems, e.g., fission or
    fusion reactors (Brennan)
  • Small scale, informal approaches to stimulate
    radical developments

12
Integration with other initiatives
  • Relate to the Materials Chemistry Centre (UCL
    Chemistry, Chem Eng, Birkbeck Industrial
    Materials Chemistry, with some space and
    joint-use kit), including the Visualisation
    Centre.
  • Comment Visualisation could be one major core
    component linking a wide (and evolving) range of
    materials initiatives)

13
Umbrella for LCN new UCL/IC centres (Gabriel
Aeppli)
  • Examples 1 Materials Synthesis, encompassing
    non-'nano' activities in chemistry and elsewhere
  • Example 2 Materials Systems Modelling,
    transcending nanotech but could encompass its
    modelling needs as well as those of other
    centres/departments ranging from pharmacology to
    earth sciences.
  • Comment Modelling should be at the core, linking
    many projects. UCL has unique range and strength
    in this area, including Peter Coveneys Centre
    for Computational Science
  • Comment Modelling is much more than computer
    power, and this is where UCL has special
    strengths.

14
Biomedical materials with links across London
(Robert Brown, AMS)
  • Past discussions by AMS identified many common
    areas, from the molecular scale through other
    mesoscopic areas (minimal invasive dentistry)
    including porous solids to engineering and novel
    materials, e.g., interfaces and adhesives.
  • These should exploit our wide-ranging measurement
    (CAIS) and modelling capabilities (LCN, including
    nano aspects)
  • Robert Brown raises specifically the area of
    protein-based bioartificial materials and the
    fabrication of meso-scale biomimetic structures
    (cf. Biomaterials Foresight 2004). 
  • UCL has funding to set up a cross-college
    Biomaterials Composites lab (now under
    construction at the Eastman Dental Institute,
    which has complementary interests in synthetic
    polymer and glass biomaterials for tissue
    engineering.
  • Pankaj Vadgama at QMW (the previous Biomaterials
    IRC) appears to welcome collaboration.

15
Materials discovery (Des McMorrow)
  • Novel magnetic, electronic properties etc. Most
    of the world follows the Japanese. We have the
    basis for a Centre for Materials Discovery
  • Comment This might be just one of a number of
    projects (maybe with international partners)
    that could benefit from core platforms in
    visualisation and modelling

16
The energy crisis missing skills for the nuclear
industries (fission and fusion)(Feargal Brennan,
Tony Harker)
  • It seems most unlikely that the Kyoto targets (or
    even more serious ones) can be met without
    nuclear. In the longer term, fusion will be
    needed, especially for Asia.
  • There is a recognised international shortage in
    people with the right skills.
  • One particular area for which UCL has special
    expertise is the mix of materials, inspection and
    monitoring to meet the novel challenges in an
    holistic way. We have good links to both the
    fission and fusion communities.
  • These themes are also ones that could underly a
    UCL/ Imperial centre.

17
The small scale, informal approaches How to
stimulate radical developments
  • The Exploratory projects in the Nanotechnology
    IRC give the right sort of scope
  • Right environment to tempt top younger scientists
    with Royal Society, EPSRC and similar Fellows (to
    compensate for the lack of college Junior
    Research Fellowships)
  • Room to respond rapidly and effectively in
    cross-disciplinary areas
  • Seed funding (say 20K) for research projects in
    cases where confidentiality precludes many routes
Write a Comment
User Comments (0)
About PowerShow.com