The aim of this collaboration between Computer Science and Mathematics
disciplines is to develop a theoretical, methodological and practical understanding
of how to support a range of tasks concerning conceptual knowledge processing.
The view of the project is that knowledge processing takes place primarily in
the human mind and that human communication can only be effectively supported
by appropriate design means and devices. Developing prototype software that
demonstrates these devices in practical domains continues to be a key feature
of the collaboration that benefits from existing DFG (Deutsche Forschungsgemeinschaft)
support and has been on going since 1999.
Chief Investigator(s):
A/Prof JA Herrington;
Prof TC Reeves;
Prof RG Oliver
2004$
2005$
2006$
2007$
Total $
$3,900
$8,600
$5,300
$600
$18,400
Title:
Design experiments in ICT in education research
Category:
3301—EDUCATION STUDIES
Collaborating Country(ies):
USA
Summary:
How to use information and communication technologies (ICT) to
improve teaching and learning outcomes has become a critical question for educators
world-wide. Governments are investing hugely in hardware, software and infrastructure
to support the use of technologies but the research conducted into their effective
use in inadequate. This proposal will investigate a relatively new methodology,
design experiments, that has potential to provide the basis for enhancing both
pedagogy and outcomes through technology integration. The research will determine
the major principles, methods and critical characteristics of design experiments,
and develop guidelines for their use in ICT research.
Chief Investigator(s):
Prof HK Liu;
Prof V Pan
2004$
2005$
2006$
2007$
Total $
$7,330
$16,500
$18,340
$9,170
$51,340
Title:
The role of nano-structures for the super-current flow and limitation
in high-temperature superconducting films and multi-layers
Category:
2914—MATERIALS ENGINEERING
Collaborating Country(ies):
Ukraine
Summary:
The aims of the project are to promote the development of the
second generation of high-temperature superconductors for electrical power engineering,
so-called “Coated Conductors”, and to achieve enhancements of their
characteristics for revolutionizing the world of the electricity, power, and
energy handling. The comprehension of critical current density limiting mechanisms
in films and multi-layers, as well as the construction of corresponding theoretical
models will be the main scientific outcome of the project. The understanding
of the interplay between fundamental and technological aspects will be a significant
step towards the practical utilization of Coated Conductors.
