Submission to the Review of Higher Education Financing
and Policy
The Australian Academy of Technological Sciences and Engineering
A primary object of the Australian Academy of Technological Sciences and
Engineering(ATSE) is to promote in Australia the application of scientific and engineering
knowledge to practical purposes. The Academy provides a forum for study and discussion and
the formulation of comment and advice to government and the community on technological and
engineering matters.
The Fellowship is broad and contains many of the most distinguished Australians in the
fields of technological sciences and engineering.
The Academy recognises the importance of ensuring discipline diversity and excellence
in course quality across all disciplines. It has a special interest to ensure that Higher
Education contributes adequately to the professional and vocational needs of those many
graduates who will go on to create the wealth, jobs and welfare needed in the increasingly
technological and engineering-based Australia.
The Academy has developed a policy on education embracing the various sectors: primary,
secondary, tertiary and continuing education. A copy of the ATSE education policy is
provided as an attachment to this submission. Section 3.4 relates to University education.
The particular focus in this submission is on the graduate and on the role of research
within higher education, but other points are addressed using the structure in the call
for submissions.
Theme one:The Role of Higher Education in Australia's Society and Economy
- Higher education has a prime responsibility, not just to sustain, but to help advance
the quality of life and standard of living of the Australian community.
- The sector must preserve a balance between educational activities oriented towards
social, cultural and wealth-generating outcomes.
- Science and technology students should be exposed to a relatively broad education at
undergraduate level covering the fundamentals of science, technology and engineering.
- It is vital that improved linkages between industry, government instrumentalities and
tertiary institutions be achieved, including increased involvement of other sectors in
curriculum design, development and delivery. Initiatives such as the Cooperative Research
Centre program, external members on Faculty Boards and industry-sponsored studentships
have been effective in this regard. Curricula and course structures should be relevant to
current social and economic realities and to future needs.
- In an ever more technological global society graduates require a knowledge of technology
within a social and economic context, a capacity to apply that knowledge within a chosen
area of speciality, a broadening social maturity based on appreciation of the humanities
and human values, a capacity to relate and communicate socially and a constructive and
positive attitude to the society into which they will graduate. In this context, the
enhanced popularity of combined degrees is welcomed.
- The global nature of technology and trade requires the future graduate to be able to
operate effectively in this global environment with a consequent need for higher education
itself to develop offshore alliances, international partners and "virtual
departments" exploiting the multi-media revolution to sustain excellence. The early
success of a number of Australias leading Universities in developing such alliances
is to be applauded.
- The rate of change of the work environment is increasing rapidly, consequently the ATSE
supports the role of postgraduate education and training and continuing professional
development activities in maintaining and extending the skills, knowledge and flexibility
of practitioners. This development imposes further responsibility on the higher education
sector for ensuring that students gain a thorough grounding in the basic skills of
mathematics, physics and the skills of written and spoken expression.
Theme two:Factors Affecting Demand over the next 10 to 20 years
- Higher education in Australia can play a major part in arresting the drift within
Australia to more lower-paid and lower skill jobs if its graduates and staff contribute to
the development of modern commerce and industry based on high level knowledge and skills.
- Much of modern industry and commerce is team based, integrating across discipline and
national boundaries and reliant on an hierarchy of skills at the levels of both university
and technical and further education. Higher education institutions need to recognise and
to respond to the increased and changing demand.
- Understanding and planning for the future requires a sense of national vision and
strategic policy direction. The development of a widely supported national technology and
industry policy and strategy would clearly position Australia as an internationally
competitive nation in the 21st century.
Theme three:Regulatory and Administrative Framework for Higher Education
- Institutional autonomy and academic diversity within a robust accountability framework
are vital to the health and international excellence of the Australian higher education
system.
- The uniformity of offerings across Australian higher education institutions is a
fundamental weakness leading to non-viable departments and schools and lack of the
diversity essential within a changing and evolving society. It can be an impediment to the
development of schools of recognised world leadership levels. A framework is required
which generates viable departments and schools through a process of rationalisation and
student mobility.
- Quality assurance processes including benchmarking against best practice should be
integral to responsible management of the teaching and learning environment. It is
reasonable to expect higher education institutions to establish monitoring and evaluation
programs. Feedback to students, funding providers and the community should be the central
part of accountability and audit processes.
- Incoming students should have a wide choice of institution within an open and
Australia-wide competitive market.
- Higher education as a sector must be given incentives to provide education associated on
the one hand with the advancement of knowledge within research and professionally-based
institutions and, on the other, with scholarship based on professional practice within
institutions linked intimately to the community, industry and the professions. Some
institutions can be expected to focus more on one than the other. Educational diversity is
a strength from which Australia should derive much benefit.
- An outcome of the deregulation of the higher education sector, with a decreasing
proportion of overall funding being derived directly from Government, should be a
lightening of the administrative burdens imposed on Universities through the requirement
to provide data to government bodies.
- While having regard to the educational benefits of industry-linked university
activities, a fair competition policy should apply to commercial activities which are in
direct competition with the private sector.
Theme four:Financing Higher Education Teaching and Research Training
- The sources of finance for higher education institutions are appropriately diverse.
Industry and the community, as well as the individual, benefit from the professional
expertise available, from the new knowledge created and from investing in a high level
skills base.
- The primary function of government should be to ensure that the core funding to
Australia's public higher education institutions is sufficient to maintain essential
infrastructure and educational programs at a level of quality commensurate with the need
to train high quality graduates for an increasingly competitive world environment. It is
appropriate that the level of support varies with the mission of the institution.
- Students should contribute to the costs of their education; however, safeguards must
exist to ensure equity and access programs provide for the intellectually gifted, but
socially or economically disadvantaged, to have continued access.
Theme five:Funding of Higher Education Research
- Research funding should be structured to encourage diversity and responsiveness to
community and market needs including recognising the importance of research training.
- The maintenance of a diversity of funding bodies targeting different research sectors is
favoured. The focus on sectors improves the setting of research priorities and the
linkages between funding providers, research participants and end users, where
appropriate.
- It is essential that adequate funding is provide to establish and maintain research
infrastructure which is vital to underpin research programs. Such funding should be
provided on the basis of research performance either through an incentive-based research
quantum block grant to institutions or through full funding of research projects.
- Block grants for research should be predominantly towards encouraging "pinnacles of
excellence" at the level of large research groups or departments undertaking
integrated programs of strategic basic and applied research. Within such a funding
environment, it must still be possible for the individual to obtain direct project funding
but on the basis of outcomes rather than promise.
- Collaborative research grants and CRCs are excellent in their objectives and have
brought a wider perspective to academic life. To date there are encouraging outcomes in
improving cooperative linkages. However there is still considerable scope to further
improve the ability of industry to fully exploit the results of such collaboration.
- Incentives which result in increased effective collaborative and commercialisation links
between the science and technology knowledge base of universities and the economic
development processes of Australia should be developed.
- The movement of staff between universities, industry and government to broaden the
knowledge and professional experience of staff as well as to enhance research
collaborations is strongly supported.
Concluding Remarks
Australia has a strong and diverse higher education sector which underpins the economic
prosperity of the nation. The sector is currently under considerable financial stress as
it seeks to enhance its performance relative to developed and developing nations. It is
vital that adequate resources and effective and efficient academic practices exist to
ensure that a world class skills base for Australia is secured. The substantial role the
higher education sector plays in the social and cultural development of the nation through
its discipline diversity should not be underestimated.
The recent ASTEC Future Needs study identified six key issues for Australia all of
which are pertinent to the role of higher education:
- The Need for Innovation and Entrepreneurship
- The Need for a Technologically Literate Society
- The Need to Capture Opportunities from Globalisation
- The Need to Sustain Our Natural Environment
- The Need for Continuous Improvements in Community Well-Being
- The Need to Build a Forward Looking Science and Technology System.
To achieve desired outcomes will require adequate funding levels, diversity of
curricula, freedom of student choice, a challenge to the rigidity of faculty structures,
reassessment of the contribution of each academic to teaching, administration and
research, and a closer involvement of the higher education with the local community,
including innovative industry.
In the open-market of the next century, Australia will require a much clearer sense of
focus and purpose if it is to sustain its quality of life and standard of living. The most
powerful agents of change are its young graduates. Higher education must be forward
looking and prepare its graduates for their future life in a challenging and
technology-based world economy and society.
Attachment to:
Submission to the Review of Higher Education Financing and Policy
ATSE POLICY ON EDUCATION
Summary
The Academy has formulated this policy to establish priorities for the promotion and
advancement of education particularly in the technological sciences and engineering.
It believes an awareness of the relevance of science and technology in everyday life
should form part of the curriculum at primary level. In secondary education, it supports
the development of broad national curriculum guidelines which will ensure that fundamental
principles are adequately covered, provide suitable preparation for students with
differing career goals and prepare students for lifelong learning. University education in
technological sciences and engineering should expose students to a relatively broad
education covering the fundamentals as well as preparing graduates for the effective
practice of technological sciences and engineering. It supports the continuous review of
technological science and engineering courses to ensure a balance between general and
specialised education to prepare students for a wide range of employment opportunities.
The Academy stresses the importance of postgraduate training, both coursework and
research and continuing professional development, so that individuals can take up
leadership roles in academe and industry.
1. PREAMBLE
The objectives of the Australian Academy of Technological Sciences and Engineering
include a commitment that it will undertake to encourage education and research in
technological sciences and engineering and in the education and training of professional
and technical staff. It also aims to encourage and enhance the pursuit of excellence in
the technological sciences and engineering and in the management and development of
technological industries.
In light of these objectives, the Education Committee of the Academy maintains an
overview of educational issues of interest to the Academy and recommends priorities for
the promotion and advancement of education. Current factors contributing to educational
change of particular interest to the Academy are:
- the recent restructuring in the university sector resulting in universities pursuing
diverse goals and objectives
- the impact of developments in information technology
- the challenges of global economic competition
- the requirements of environmental protection and sustainable development
- the technical and social transformations currently taking place
- the rapid developments in engineering and science education in other countries
especially in the Asia-Pacific region.
- the changing demographics and student interest in careers in technology and engineering
2. GUIDING PRINCIPLES
The Academy aims to:
- be involved in the long term strategy for education in technological sciences and
engineering,
- increase public understanding and awareness of the nature and role in society of
technology and engineering,
- provide an ongoing assessment of the need for change in science and engineering
education and implement strategies to reflect the changing engineering environment and the
emerging new technologies,
- assess the impact of sustainable development on education policy including such matters
as the need for:
- a change in attitude to technology development and engineering practices which allow for
the issue of sustainability and which considers the consequences of the United Nations
Conference on Education and Development,
- a new approach to environmental economics,
- greater involvement of other disciplines such as architecture, economics, law, industrial
design, business studies and social sciences.
- maintain existing links and seek new links to work with relevant professional bodies,
provide advice in response to requests from governments and other appropriate
organisations and actively raise and discuss significant issues with government.
3. EDUCATION
3.1 Primary
The Academy believes that an awareness of the relevance of science and technology in
everyday life and the process of engineering which converts science and technology into
products and services should form part of the school curriculum at primary level. Emphasis
should be given to a basic understanding of scientific principles and facts. All teachers
at the primary level should have a basic appreciation of science and technology issues.
Courses should be made available to achieve this objective
3.2 Secondary Education
3.2.1 National Curriculum Framework
The Academy supports the development of a national curriculum framework which
contribute to:
- ensuring that fundamental principles are adequately covered,
- maintaining a high standard,
- eliminating inconsistencies between States,
- improving mobility of students,
- minimising barriers to higher education,
- providing suitable preparation for students with differing career goals,
- preparing students for life-long learning,
- promoting a knowledge of technology.
The development of a national curriculum framework should be achieved in full and open
consultation with both discipline and teacher-based professional organisations. The
framework should retain diversity and flexibility, acknowledge the importance of local
requirements and take into consideration the needs of vocational training.
3.2.2 Teacher Education
- Prerequisite subjects for tertiary education in technological sciences and engineering
should be taught by qualified teachers preferably with a university major or higher degree
in that discipline and with relevant experience.
- Teachers should be provided with opportunities to improve their knowledge and skills in
the practical application of their disciplines to society and industry so as to engender
interest and enthusiasm amongst their students. The achievements of teachers in this
regard should be adequately recognised.
- Career advisers should also be given more opportunities to improve their awareness of
the careers that exist in science and engineering.
- Greater emphasis should be placed by teachers on encouraging more women into science,
technology and engineering
3.2.3 Every effort should be made to encourage the brightest students in
science and mathematics to undertake courses in education and the technological sciences
and engineering
3.2.4 Funding
Public funding of secondary education institutions should be at a level which would
provide a variety of courses to meet the differing goals of students at the highest
possible standards. Members of the Academy are encouraged to become actively involved in
these issues at the state and local level.
3.3 tafe
The Academy recognises the importance of the Technical and Further Education (TAFE)
System as a vital component of the whole education spectrum. A healthy TAFE system
provides an essential underpinning of the drive towards international competitiveness and
the development of the increasing skills base that is required by all segments of the
economy.
The Academy therefore seeks to encourage:
- The recognition that the TAFE system has a unique and significant role in education in
the applied sciences and engineering that is different from, but complementary to that
provided by the University system.
- Adequate coordination between Universities and TAFE to ensure that students transferring
from the TAFE system to a University receive proper recognition for their prior training.
- Close cooperation between the TAFE system, the Universities and, where appropriate, with
industry to ensure optimum utilisation of facilities and equipment.
- The maintenance of close contacts between TAFE teaching staff and industry to ensure
that courses are meeting industry needs and that the staff remain fully cognisant of
technology change in their area of activity.
3.4 university education in technological sciences and engineering
3.4.1 Overview
Major developments in technological sciences and engineering practices have occurred
due to geopolitical changes, changes in the provision of infrastructure and financing and
the expansion of information technology and environmental awareness. The Academy in
general believes that:
- Students should be exposed to a relatively broad education at undergraduate level
covering the fundamentals of science, technology and engineering.
- Universities should have a commitment to prepare graduates for the effective practice of
technological sciences and engineering.
- Curricula and course structure should be relevant to the current social and economic
realities and to future needs. They should reflect the vital role undertaken by
professional scientists and engineers in innovation, in establishing new enterprises, in
redirecting existing products and processes and in developing new products and services.
- Wherever possible, students should be required to undertake appropriate practical
experience external to the University during their undergraduate courses.
- Students should be made aware of the importance of maintaining a high standard of
professional ethics.
- Gifted students should be encouraged to undertake technological science and engineering
courses by the provision of attractive scholarships.
The Academy also seeks to encourage:
- improved linkages between industry and tertiary institutions, including increased
industry involvement in curriculum design, development and delivery,
- best practice and initiatives in education methods, including open learning and distance
education, and the need for the integration of efforts as a consequence of changing
practices and facilities,
- the examination of the structure and content of engineering courses with the development
of engineering design as critical issues,
- creativity and implementation of projects which require the integration of a large
number of different disciplines including management skills,
- an examination of the length of time necessary to prepare a student for a career in
professional engineering and technology disciplines.
The Academy therefore supports:
- continuous appraisal of technological science and engineering courses to ensure a
balance between general and specialised education required to prepare students for the
range of employment opportunities.
- interaction with industry to determine how new and emerging technologies can best be
accommodated within courses to meet current and future needs.
- the accrediting role of national professional associations and their wider role in
contributing effectively to the continuous improvement in the quality and relevance of
technological science and engineering education.
3.4.2 University Teaching
The Academy supports:
- the need of Universities to appoint and retain first class academic staff with both
exceptional teaching and other academic capabilities, as well as practical experience
- the trend by universities to move away from rewards and promotion policies mostly based
on research performance and publication to broader criteria including the quality of
teaching, interaction with industry, consulting and community service.
3.4.3 University Staff Education
The Academy strongly supports the movement of staff between universities, industry and
government to broaden the knowledge and experience of staff. It also advocates that all
University academic staff should undertake courses in communication and teaching skills,
including lecture presentation and the use of computer-aided learning technologies.
3.4.4 Postgraduate and Lifelong Education
The Academy stresses the importance of postgraduate training for individuals who seek
to have leadership roles in academe and industry. It also advocates an increase in the
employment by industry of graduates with higher degrees.
Continuing Professional Education
The Academy supports the role of postgraduate education and training and continuing
professional development activities in maintaining and extending the skills and knowledge
of practitioners engaged in academia, professional practice and in research and
development.
Research Training
The Academy supports:
- the development of more research initiatives in the universities,
- the need for an increase in the number of postgraduate research scholarships with
stipends sufficient to attract first class applicants,
- the need to build an improved research infrastructure in universities,
- efforts to improve inter-university collaborations as well as collaborations between
universities and industry, both in Australia and overseas,
- the increased co-operative interactions between universities, industry and government
research organisations particularly through the establishment of Research Centres of
Excellence,
- an active involvement of industry in postgraduate training,
- the granting of double degrees (already established in a number of universities) in
engineering combined with another discipline to provide a broader education.
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