On 14 October 2013, the Tasmanian Government released its Science Engagement Program (PDF 7.2MB) . The development of a Science Engagement Program was a key project under the science research sector development plan “Reaching our potential: developing Tasmania’s science research capability”. This program builds on initiatives, work and partnerships already in place in science engagement, and has been developed within the framework of the Australian Government's Inspiring Australia strategy.
The Science Engagement Program aims to “facilitate the improvement of scientific literacy in Tasmania through science engagement, to encourage ingenuity and adaptability across the economy and community”.
We were very pleased to realize that the report explicitly identified our STEM Education programs as one of the key contributors to science engagement in Tasmania. The exact quote follows:
“Providing easy access to science resources such as those developed by the UTAS STEM Education and Outreach Group allows time-challenged teachers to be effective in providing their pupils with extra opportunities for science engagement.”
On July 31 2013, Chief Scientist Professor Ian Chubb released the position paper: “Science, Technology, Engineering and Mathematics (STEM) in the National Interest: A Strategic Approach (PDF)”.
The paper presents an approach for a national strategy to guide Australia’s STEM enterprise and was released in an address to the National Press Club.
The School of Engineering at The University of Tasmania welcomes the release of this paper.
The Australian Workforce and Productivity Agency released on 09 July 2013 their Information and Communications Technology (ICT) workforce study (PDF). A key idea included in the study that connects with STEM is quoted below:
“The Australian Council of Deans of ICT (ACDICT) has called for ICT to be given greater recognition as an integral part of STEM, highlighting ‘the enabling and central role of ICT throughout STEM disciplines’. ACDICT has called for the Enhancing the Training of Mathematics and Science Teachers Program to be extended to include improving the skills of teachers of ICT. According to ACDICT’s President, Professor Leon Sterling: Government should address the issue holistically and consider alternatives to improve the teaching of ICT in secondary schools by providing adequate funding, as ICT is vital for the future well-being in Australia. Doing it for maths and science is only addressing part of the solution.”
The Australian Council of Learned Academies (ACOLA) launched on 05 June 2013 a new report titled “STEM: Country Comparisons. International Comparisons of Science, Technology, Engineering and Mathematics (STEM) Education (PDF)”. The report compares STEM education strategies on an international basis and identifies the key strategies of successful STEM countries.
From 22 studies of STEM policies and practices around the world the report makes 24 key findings which highlight a number of challenges for Australia with STEM participation and provides a basis of ideas to tackle these.
Overall, the report found that while Australia does well in the major international ranking studies, it faces several key challenges if it is to maintain or improve upon its current position.
Report co-author Professor Russell Tytler said “STEM education is almost universally recognised as important. A key problem for Australia lies in in the distribution of student achievement with a long tail of underperforming students when compared to our major competitors.”
The report also found that Australia is suffering serious capacity gaps in STEM teaching with teacher shortages, in particular in regional Australia, and a large problem of teachers teaching out of field, which is particularly pronounced in mathematics.
The President of ACOLA, Professor Lesley Johnson AM FAHA commented “Of particular interest in the Report are the striking similarities found in countries strong in STEM, despite significant cultural, political and economic differences”. She went on to add “For example, STEM strong countries have a strong focus on teachers and teaching, with teachers held in high esteem and expected to teach in their qualified field and not others.”
STEM strong countries were all found to share a focus on curriculum reform to make STEM engaging; a strong commitment to learning and achievement for all; guided by a national STEM policy framework. STEM education has long been seen as pivotal to increasing our nation’s productivity. The report found that many nations have evolved dynamic and productive strategies in their focus on advancing STEM.
“Australia lacks a sense of national urgency around STEM performance in contrast to some of our closest competitors. This report provides a framework of evidence based findings on which to address the challenges facing STEM education in Australia” commented Professor Tytler.
The Australian Industry Group released on 21 March 2013 the report “Lifting our Science, Technology, Engineering and Maths (STEM) skills (PDF 1.1MB)”. Some of the report recommendations in the schooling sector are:
Given the importance of the early experience of STEM skills for young people, it is imperative to support a range of strategies in the schooling sectors that lead to increase participation by students in STEM skills. These strategies include:
- measures to lift teacher quality, capability and qualifications in STEM and related disciplines;
- the adoption of a more innovative pedagogy which teaches STEM skills in an engaging and integrated way;
- the development of measures that encourage girls to remain engaged in STEM skills;
- the development of career advice in schools that advances the importance of STEM subjects required by many occupations and careers; and
- the need to commence an expanded engagement with STEM skills at primary school where students first encounter these areas.
The Office of the Chief Scientist released on 14 February 2013 the paper titled "Top Breakthrough Actions for Innovation (PDF 164KB). The paper identifies five breakthrough actions governments could take to make Australia a more innovative nation. Some key statements that are part of this paper include:
The Commonwealth should require every Australian STEM degree course to provide an opportunity for a substantial number of students to undertake a business placement or project for university credit to the value of one full-time semester. These could be either domestic or international placements.
For example, it is already an institutional accreditation requirement of Engineers Australia that all engineering degrees include a 12-week ‘Exposure to Engineering Professional Practice’ component. This is an important start; but to change the culture, we have to change the scale of these initiatives across the broad range of STEM subjects.
The Australian Workforce and Productivity Agency (AWPA) prepares an annual report about the demand for skills from the resources sector and the supply of skills available to meet those needs and options to address skill shortages. AWPA has released in December 2012 its second annual report (PDF) on the resources sector skill needs. A key consideration which is part of the report and that refers to STEM education and training opportunities in the K-12 and VET sectors follows:
“Policy makers could explore the relationship between the responsiveness of the tertiary and the VET sector and participation in mathematics and science subjects in the secondary and primary school systems. There is a need to increase education and training opportunities through schooling, higher education and VET in STEM to better address the resources sector skill needs.”
The Australian Workforce and Productivity Agency released in September 2012 the report "Building Australia's Defence Supply Capabilities: Main Report for the Defence Industry Workforce Strategy (PDF)". STEM skills and subjects are mentioned several times in the report. In particular, some key statements that are part of this document include:
"Across Defence industry, the greatest demand for skills relates to highly technical occupations in the engineering professions and trades. The supply of engineers, particularly engineering professionals, is dependent on students continuing with high-level science, technology, mathematics and science (STEM) subjects in upper secondary school.
Therefore, strategies are required to increase the numbers of young people engaged in the STEM subjects that lead to critical occupations for Defence industry."
Importantly, one of the recommendations in the report talks specifically about encouraging STEM study in schools:
"To avoid duplication of effort, Defence liaise with The Ofﬁce of the Chief Scientist to assess the programs currently being offered to encourage STEM study in schools. This assessment needs to identify the region in which the programs are being run, the target population, the skills being targeted and developed, the industry/education partnership arrangements, and the evidence available to determine the impact of the program on students’ choices for future study and careers.
If this data collection process identiﬁes the need for new programs, communication and marketing campaigns should be developed between the DMO and industry associations to demonstrate the value of careers in Defence industry to schoolchildren and their parents, as well as the broader community."
The Office of the Chief Scientist released on 05 September 2012 the paper titled "STEM Education and the Workplace (PDF)". This paper examines Science, Technology, Engineering and Mathematics (STEM) skills, employer demand for graduates in STEM, and how Australian universities can best prepare STEM graduates to take up roles in the wider economy, as well as in academic research.
In particular, some key statements that are part of this paper include:
“At a time when economic success will increasingly depend on the creation and application of knowledge, STEM education instils graduates with valuable skills in rigorous evidence-based thinking and problem solving…”
“It is timely for all participants in STEM education to consider how best to prepare and employ students, both for traditional roles in research and science-intensive industries, and for professions that require less scientific knowledge but where STEM skills still provide value…”
“STEM skills include problem solving, rigorous and sceptical analysis of evidence and theories, numeracy, and the development of logical arguments. The investigative nature of STEM fields also makes them ideal training grounds for developing objective and critical ways of thinking…”
“As technology transforms much of the economy, from manufacturing and retail to law and banking, STEM graduates will continue to be in demand in a range of sectors…”
“Students interested in pursuing STEM degrees should not be deterred by a false perception that a research career will be their only option. There are avenues at all stages of the student cycle to signal the possibilities that STEM capabilities unlock. As part of recruitment efforts for prospective students, and careers services for current students, universities can highlight the applicability of STEM skills to a wide range of professions and sectors…”
The Australian Workforce and Productivity Agency released on 19 July 2012 the discussion paper "Future focus: Australia’s skills and workforce development needs (PDF 8.05MB)". STEM subjects are mentioned several times in the paper.
In particular, some key questions and statements that are part of this document include:
"Does more need to be done to foster STEM (Science, Technology, Engineering and Mathematics) subjects for Australia’s future competitiveness in the global marketplace?..."
"Will our capacity in the STEM subjects be sufficient for the science and technology needs of the future?..."
"Investment in education is critical as Australia tries to revive science, technology, engineering and mathematics (STEM) education to aid the high‐tech sector..."
"The prominent role of science and technology means that Australia continues to require considerable numbers of highly‐qualified people, especially in STEM subjects..."
"There is evidence we are slipping in terms of STEM subjects compared to our international competitors. This is undermining the ability of students to succeed in disciplines such as engineering. Current government policies to support STEM subjects in schools will take a long time to work through to tertiary sector enrolments and job‐ready graduates. This will potentially affect the resources sector, manufacturing, the finance industry, education (including maths and science teachers) and computer applications including general ICT, electronic games and media. In particular, enrolments in the ‘enabling’ sciences (mathematics, physics and chemistry), along with agriculture, are diminishing to an extent, following on reduced enrolments in Year 12 science subjects".
Australia's Senate Standing Committee on Education, Employment and Workplace Relations has released on 12 July 2012 a report titled “The shortage of engineering and related employment skills (PDF)”. Two of the committee’s recommendations focus on STEM ability and courses. These are:
“The committee recommends that the government seeks recommendations from the Chief Scientist about how it can best continue to support the development of science, technology, engineering and mathematics courses.”
“The committee recommends that the government works through the Council of Australian Governments to promote science, technology, engineering and maths ability in states and territories.”
Australia’s Chief Scientist Professor Ian Chubb AC has released two very important reports that highlight the crucial role of STEM education in Australia's future.
The quotes below are found in the Foreword section to each report.
Health of Australian Science (PDF), May 2012.
"I doubt that too many would argue with the proposition that science, technology, engineering and mathematics (STEM) will all play an important part in the solutions we find for our future health, security, safety and prosperity as a nation, and as a planet."
"The Prime Minister asked that I provide her with advice on means to encourage greater participation in mathematics, statistics and science courses of study at university...
My Report is attached. I have included some consideration of engineering because it is an essential component of the future that is dependent on the mathematics and science disciplines. I was not asked by the Prime Minister to advise her on why Science, Technology, Engineering and Mathematics (STEM) studies are important. I have, however, highlighted some of the action being taken elsewhere in the world, in part to emphasise that we are not alone in facing the issues we face, and that many countries are now taking substantial action as they attempt to reverse the trend of declining interest from students at the exact time that the demand for these skills in the workforce is increasing. It will doubtless result in a significant premium on these skills in a global market."
Early in 2014, Manufacturing Skills Australia (MSA) launched its 2014 environmental scan "Manufacturing: It's in our national interest". A key idea included in the report that connects with STEM skills and knowledge is quoted below:
"Development of STEM skills continues to be a central priority to ensure manufacturing can grow its national skills base. STEM skills are the building blocks required for trade apprenticeships and are key to pursuing the high quality, high skill outcomes manufacturing needs. Improving STEM outcomes is a shared issue across developed countries. However, Australia lacks the level of urgency found in other countries according to recent research and in the number of students enrolled in STEM courses".
In April 2014, the Australian Workforce and Productivity Agency (AWPA) launched its report "Manufacturing workforce study". A key idea included in the report that connects with STEM-related disciplines is quoted below:
"A well-educated and well-trained workforce is necessary to support Australia's Manufacturing industry as it moves towards producing more sophisticated products and services. As the industry continues its transition toward more advanced manufacturing, the sector will increasingly rely on STEM-related disciplines. The industry's future competitiveness is dependent on its ability to secure workers with adequate qualitative and quantitative skills primarily through the recruitment of university graduates and higher level VET graduates".
On 30 April 2014, the Committee for Economic Development of Australia (CEDA) launched its policy perspective "Advanced Manufacturing: Beyond the production line". A key idea included in the report that connects with STEM skills and knowledge is quoted below:
"The skills and knowledge of those working in manufacturing are important to the creation and commercialisation of new innovations. Technical skills or skills in science, technology, engineering and mathematics – so-called STEM skills – are critical to innovation and Australia's ability to operate higher up the value chain. Technological developments are transforming the workforce, giving rise to new occupations and changing the nature of existing ones, and this is increasing demand for STEM skills".
On 03 June 2014, The Australian Council of Learned Academies (ACOLA) launched its report "The role of science and research in lifting Australian productivity". A couple of key ideas, which are part of the report, that connect the Humanities, Arts and Social Sciences (HASS) with the STEM fields are quoted below:
"Productivity improvements driven by innovation rely on a mix of STEM and HASS skills, together with an understanding of innovation systems."
"Getting the HASS-STEM relationship right is a critical factor in efficiency and productivity at the firm level…"
In June 2014, the Australian Workforce and Productivity Agency (AWPA) launched its report "Engineering workforce study". A couple of key ideas, which are part of the report, that connect Engineering-related studies and occupations to STEM skills and subjects are quoted below:
"Engineering-related studies and occupations rely on science, technology, engineering and mathematics (STEM) skills which are developed at school levels. Building STEM skills is critical for Australia's national productivity and global competitiveness and these skills are particularly essential to building the next generation of engineering workers and engineering skills. The low participation of secondary school students in STEM subjects is thus of concern to engineering-related industries as low levels of student engagement with advanced mathematics and sciences restrict the numbers of students with STEM skills that can articulate into tertiary education courses such as engineering."
"Encouraging more secondary school children to study STEM subjects so they can be equipped to go on to study engineering and pursue engineering careers is imperative if we are to increase the domestic supply of engineering workers in Australia."
In July 2014, the Business Council of Australia (BCA) launched its report "Building Australia's Comparative Advantages". A couple of key ideas, which are part of the
"Studying STEM subjects is a powerful way to develop the problem-solving and evidence-based thinking skills required in a modern economy."
"At a more basic level, an ability to understand data and work with technology will be increasingly important across all sectors. It is critical that Australians' skills in these areas are at a world standard as they will be critical to their ability to compete in a global marketplace."
In September 2014, the Chief Scientist released the paper "Science, Technology, Engineering and Mathematics: Australia's Future." This report builds on the Chief Scientist's position paper, "Science, Technology, Engineering and Mathematics in the National Interest: A Strategic Approach", calling for a whole of government approach to investment in STEM.
In October 2014, the Business Council of Australia (BCA) launched its report "Building Australia's Innovation System". A key idea in the report that connects STEM and ICT skills to broader 21st century skills is quoted below:
"Government needs to ensure that our education and training systems provide citizens with the capabilities to think creatively, to innovate and to apply their skills productively.
This can include technical skills in science, technology, engineering and mathematics (STEM), and ICT, as well as the broader skills such as adaptability, problem solving and creative thinking which are necessary to the ability to innovate."