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Submission to Science Lectureships Initiative

Title:
eScience: Applications and Technology
Institutions:
Faculty of Engineering and Information Technology,
Australian National University.
Department of Computer Science,
Royal Melbourne Institute of Technology.
Contact Officer:
Dr C. W. Johnson, Head of Department,
Head, Department of Computer Science,
Australian National University,
Canberra ACT 0200.
Telephone: 02 6249 4509 Fax: 02 6249 0010
Chris.Johnson@anu.edu.au
Summary:

The eScience: Applications and Technology (eSci) project will develop a graduated set of courses for science graduates to be trained in contemporary Information Technology, to become practitioners in what we term e-Science. The project will develop special-purpose course material, thus differentiating from conventional graduate IT courses. University involvement at ANU and RMIT will allow the development of the course material to be informed by leading edge IT research and development. Industry involvement will allow the courses to be taken in a work-experience mode and will provide feedback on best-practice aspects of current technology. The project will have an outreach element, in which selective components of the courseware will be projected into undergraduate courses at ANU and RMIT, and into the secondary college system in the ACT.
Funding Sought:
2000 2001 2002
$272,800 $404,900 $266,300

   
Background

The proposal seeks to effect a convergence of the following academic and industrial elements.

Just as e-Commerce is the outcome of the intersection of Web technology with conventional commerce, this proposal suggests that e-Science can be seen as the outcome of the intersection of Web technology with conventional science. This project is seen as an early exploration of this concept of e-Science, by proposing to educate the first generation of e-Scientists 1.

   
Objectives

The project will develop and deliver Masters, Graduate Diploma, and Graduate Certificate courses for science graduates, with a focus on the interpretation, integration and delivery of scientific, industrial and commercial information over next-generation network services. These courses will have the twin objectives of, firstly, providing a clear career route into the modern IT industry for talented science graduates and, secondly, providing a set of skills for those who may engage in further study, research and teaching in the sciences for the dissemination and outreach of their specialist area.

Students with a general or specialised scientific training will acquire skills in statistical data analysis, databases, data mining, advanced computer graphics and data visualisation and remote interactive networked delivery. These skills will provide them with the opportunity to contribute to the IT industry in a significant way by bringing to it the problem solving ability, data awareness and experimental rigour of the scientifically trained graduate.

The courses will produce students trained in industrial and commercial needs for integrating database technology, data mining, data warehousing, and computational modelling with Web delivery, display, and interaction software. They will be able to mediate communications within enterprises and between enterprises and their customers, suppliers, and partners: over Intranets and the Internet. They will have an introduction to IT work in industrial teams, and to the requirements of creating their own enterprises.

The project has the following objectives.

Data as mediator
The point of view is taken that science graduates, in the last analysis, are trained to work with data: to gather, analyze, interpret, manipulate and communicate data. Modern information technology, in the last analysis, provides unprecedented technical support for data representation and presentation in all its forms. The course will provide the science graduate with control of this technology, to be fully empowered as a ``e-Scientist''. The course will work towards producing some of the first practitioners in e-Science.
Utilization of Web technology
Put simply, the project is predicated on modern Web technology. On one hand, it will make extensive use of Web-based courseware. Indeed the collaboration of two universities in a common course could hardly be conceived without it. On the other hand, students of the course will be trained to be sophisticated workers in the current Web technology.
Technology transfer
Practical experience with examples of smart Web page construction, hardware and software, and advanced networking in the research laboratory will transfer to industry by way of the students and graduates. In this we include the information service industry, as well as scientific and technically oriented industries adopting Web technology themselves.
Grounding in industrial practice
The proposal crucially uses industrial partners in two ways. Where possible students will do the courses in a ``work-experience'' mode, where their employer provides work release on a fractional or an episodic basis. In addition, the courses will have a strong project component and where possible the projects will be structured with industrial partners to capture contemporary industrial reality.
Software tools
There is a rich and growing collection of commercial off the shelf(COTS) information extraction and creation tools for industry and commerce in the areas of data mining, database, computational modelling, data visualisation. Existing and forthcoming Web-based interfaces will range from common presentation tools, to simple graphics, two-dimensional and three-dimensional visualisation environments, immersive virtual environments, haptics, sound, remote collaborative environments. The challenge then becomes one of selecting and integrating the software with the information needs of industry. Students will gain experience with a wide range of presentation systems, including laptop, desktop and large immersive display environments projected over modems, over Large Area Networks, and over high performance local and global networks.
Visualization and simulation
The courses will incorporate the modern notion of computational science and engineering, which provides support for the simulation of dynamic processes and their visualization using graphical techniques.
Outreach
The embedding of science in the modern electronic domain allows the projection of elements of the science experience over the Web. The project will test this aspect of e-Science by projecting appropriate demonstrator systems into selected secondary colleges in the ACT. This will be supported by network connectivity being provided by one of the industrial supporters, TransACT, as part of its ``wired city'' initiative. It is expected that this outreach can help maintain interest in the study of science as the basis of a professional career.

Project Structure

Project Staff

The proposal involves a project staff of five over the period mid-2000 to end-2002, with the following roles calibrated in fractional terms.

The positions will be distributed between ANU (3.0) and RMIT (2.0).

Management

There will be a project Advisory Group (with university and industry representation) which will have overview of the course curricula and project evaluation. The day-to-day management of the project will be carried out the senior academic appointment. Financial management will be provided by the normal university structures.

Supporting Groups

The project will utilise a rich set of research and teaching resources at ANU and RMIT.

Content

eSci will provide the following graduated set of courses (with credit points benchmarked at 24 for a full-time semester load).

Course Duration Coursework Project
Graduate Certificate 1 semester 18 cp 06 cp
Graduate Diploma 2 semesters 36 cp 12 cp
Masters 3 semesters 54 cp 18 cp
The metric here is a full-time semester load is 24 credit points.

The courses will be supported by a pool of core units, whose content will combine an understanding of the evolving hardware and software for visualisation, computation, remote delivery and interactive presentation with the relevant psychology of human-computer interfaces and an introduction to management and commercial practices. The project component (which is 25% of each course) will either be focussed (and located) in an industrial context or will address communication and outreach requirements of scientific research and teaching groups. Indicative core units are:

Size Subject
6 cp internet and intranet technologies
6 cp data organisation (database)
6 cp data interpretation (data mining)
6 cp data representation (visualisation)
6 cp modern document technologies
6 cp scientific data analysis

The core units will be augmented by a set of optional units, derived from units that are currently available in undergraduate courses at ANU and RMIT. These include the following:

Size Subject
6 cp Computational modelling and simulation
6 cp Java programming foundations
6 cp Display technologies
6 cp Ethical and legal issues
6 cp Elements of IT management
6 cp The human-computer interface
6 cp Elements of e-commerce (including security)

Course delivery

Our aim is to put our course delivery where our subject matter is also: to produce most of the teaching materials for the Web and to deliver them via the Web.

Outreach

The very nature of the Web is ``outreach'' and we intend to exploit this by including student projects to present the attractions of studying science to secondary students and also by visiting secondary schools to promote the possibilities offered by the technological advances of modern communication providers. We see the provision of a schools-oriented Web page and associated links as an integral part of our proposal.

   
Outcomes

Course material:
Core units will be developed progressively.

semester 2001S1 2000S2 2001S1 2001S2 2002S1 2002S2
new units   1 2 2 1  
existing units     3 5 6 6
Enrolment profile:
The student enrolment profile will be increased progressively from a low base. The full complement of units will not be available until the end of the grant period, in 2003. These students will be distributed between ANU and RMIT.
semester 2000S1 2000S2 2001S1 2001S2 2002S1 2002S2
new enrolments   10 20 20 30 30
existing enrolments     10 20 20 30
Industry support of students:
It is estimated that 25% of the students will be fully-funded by industry.
semester 2000S1 2000S2 2001S1 2001S2 2002S1 2002S2
new enrolments   3 5 5 8 8
existing enrolments     3 5 5 8

   
Budget

Parameters:
Details:
  2000 2001 2002
salaries + oncosts (29% of base) 186.8 366.4 381.0
Overheads (60% of base) 86.0 168.5 175.3
Staff equipment 40.0 0 0
Laboratory equipment 0 150.0 150.0
Fee Income -40.0 -280.0 -440.0
Total 272.8 404.9 266.3

   
Implementation Timetable

The following development points are involved

March 2000
First draft of curriculum document available.
May 2000
Academic appointments (2) made.
July 2000
Controlled student intake (1 core unit).
October 2000
Academic appointments (2) made.
November 2000
Curriculum document refined.
February 2001
Computing laboratory commissioned.
March 2001
First major student intake (3 core units).
July 2001
Schools outreach commences.
November 2001
Curriculum document refined.

   
Evaluation Plan

The project evaluation plan consists of the following elements.

   
Contact Details

About this document ...

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The translation was initiated by Brian Molinari on 1999-12-08


Footnotes

...tex2html_comment_mark1
For the purposes of this proposal "science" is taken to include all flavours of pure and applied science as well as engineering.

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Brian Molinari
1999-12-08