Engineering the Future: Embedding Engineering in the Scottish Curriculum
Submitting Institution
University of GlasgowUnit of Assessment
EducationSummary Impact Type
SocietalResearch Subject Area(s)
Education: Curriculum and Pedagogy, Specialist Studies In Education
Summary of the impact
Engineering is central to ensuring economic growth in the UK and making
sure the country remains competitive in the global economy, yet there is a
persistent lack of engagement with the subject in schools. Addressing this
challenge, researchers at the University of Glasgow led a collaborative
project to achieve sustainable educational change. Working with engineers
at the Universities of Glasgow and Strathclyde — as well as with
industrialists, teachers and policy-makers — they raised the profile of
engineering within the Scottish school curriculum and embedded engineering
in teaching and examination.
Underpinning research
Research has repeatedly demonstrated that young people have limited or
distorted perceptions of engineering. While various causes have been
identified, the absence of engineering from the school curriculum in
Scotland has contributed to young people's ignorance and misunderstanding
of engineering and the diverse career paths it offers. This has led to
comparatively few highly qualified school leavers seeking to enter
high-level engineering courses.
In order to address this educational issue in a sustainable way,
researchers at the University of Glasgow and Strathclyde collaborated on Engineering
the Future (EtF), a three-year research project funded by the
Engineering and Physical Sciences Research Council (EPSRC) from 2006-2009
(extended to March 2010). The Glasgow team included staff from the School
of Education: Louise Hayward, (1990-2010 Senior Lecturer; 2010- present
Professor of Pedagogy Policy and Practice); George MacBride, Hon. Senior
Research Fellow, (2006-present); Ernest Spencer, Hon. Senior Research
Fellow, (2002-present); Dr. Nicki Hedge, Director of Learning Innovation
(2007-present); as well as Professor C Bryce and colleagues from the
Electronic and Electrical Engineering (EEE) Departments. Strathclyde's
research team was led by Professors G. Hayward and I. Andonovic.
The researchers made a distinctive and unique contribution to this
project based on their extensive previous research and consequent in-depth
knowledge of Scottish education, including curriculum, assessment,
organisation and structures, and policy formation. In particular, Hayward,
Spencer and Hedge investigated how to effect sustainable change and
transformations on the ground in the Scottish education system in their
outputs in Assessment in Education: Principles, Policy and Practice
(2005) and the Curriculum Journal (2010). This provided vital
insights for the EtF project's research design, since a key aim was to
explore ways to embed engineering within the school curriculum. This
resulted in a model in which School of Education researchers worked
collaboratively and formatively with policy communities, practitioners,
other education institutions, international engineering corporations (e.g.
Agilent, Thales) and local companies (e.g. Alba). Team members from the
EEE Departments of the two Universities and from industry brought
world-class engineering expertise to inform the engineering content of the
project. Industrialists informed priorities in engineering education; in
particular, the Agilent Foundation (USA) supported the development of more
challenging learning experiences.
The research programme established three-year secondary school-university
partnerships as a pilot study. These partnerships typically involved one
or two teachers from the school Physics or Technology departments and up
to three EEE lecturers. The partnerships identified suitable locations for
engineering experiences within existing national curricular guidance and
examination syllabuses; the partners then collaboratively developed
innovative EEE activities for pupils.
The original sites involved in the pilot investigation included two
university engineering departments and 10 schools — two from the private
sector and eight from the public sector — spanning a range of communities.
Once the research was underway colleagues from the Faculty of Engineering
in the University of Edinburgh joined the project; subsequently a further
eight secondary schools participated in the project, demonstrating its
broad appeal.
The University of Glasgow research team designed and led the qualitative
research to determine the outcomes of the project. A vast selection of
data was gathered through a range of means including: questionnaires
issued to secondary school pupils, university students, secondary school
teachers, university staff and industrialists; interviews with all
secondary school teachers and university staff involved; focus groups of
secondary school pupils and university students; classroom observation in
secondary school science classes; records of meetings of university and
school staff; records of engagement and meetings, both formal and
informal, with policy-makers; analysis of government policy documentation;
and discussions during a series of invitation-only seminars.
From an early stage of its investigation, the research demonstrated that
it was possible to develop challenging and motivating engineering
experiences for secondary school learners, despite initial reservations
amongst teachers. It confirmed that the formal inclusion of engineering in
Scottish national curriculum guidance was essential if all learners were
to have access to such experiences. It further determined that it was
important to link engineering explicitly to both science and technology at
all stages of primary and secondary education. The research confirmed that
teachers would require access to different levels of support if they were
to introduce engineering to classes. The findings clearly revealed that
there was an almost total lack of curricular reference and guidance and
resources for pupils and practitioners. There was thus a lack of
consonance between Scottish Government policy statements and practice:
government economic documents referred to the importance of engineering,
for learning and for economic development, but did not carry this over
into educational practice. The EtF research concluded that for engineering
to contribute strongly to each pupil's learning and to economic
development, there must be an explicit and detailed policy that embeds the
subject and its associated skills into the education system.
As the research project developed, the academic team worked closely with
the policy community to develop curriculum structures through which
sustainable opportunities for engineering could be embedded. The team took
part in formal consultation exercises and national initiatives, fed back
and discussed in detail interim findings, and involved policy makers in
the project management.
References to the research
Hayward, L., and Hedge, Nicki (2005) Travelling towards change in
assessment: policy, practice and research in education. Assessment
in Education: Principles, Policy and Practice, 12 (1). 55-76. ISSN
0969-594X (doi:10.1080/0969594042000333913).
[Output published in Journal that operates rigorous peer review by
referees of national and international standing].
Hayward, G., Hayward, L., Hedge, N., and Magill, J. (2010) P3A:
Promotion of Engineering through Creation of a Structured
School-University Interface. Project Report. EPSRC. [Available from
HEI]
Hayward, L. and Spencer, E. (2010) The complexities of change: formative
assessment in Scotland. Curriculum Journal, 21:2 pp161-177. (doi:10.1080/09585176.2010.480827)
[Output published in an international peer-reviewed Journal that
publishes original contributions to the study of curriculum, pedagogy
and assessment]. REF2
MacBride, G., Hayward, E.L., Hayward, G., Spencer, E., Ekevall, E.,
Magill, J., Bryce, A.C., and Stimpson, B. (2010) Engineering the
future: embedding engineering permanently across the school-university
interface. Institute of Electrical and Electronics Engineers
Transactions in Education, 53 (1). pp. 120-127. ISSN 0018-9359 (doi:10.1109/TE.2009.2025368)
[Research Output published in an international Journal that operates
rigorous peer-review].
Details of the impact
Incorporating engineering in education policy and school activities
In order to embed ideas in the education system, the academic team worked
with policy-makers to develop the policy implications of the research.
Throughout the project and as its findings and recommendations were
disseminated, the curriculum in Scotland was being reformed through the
Curriculum for Excellence (CfE) programme. The project team recommended
the formal inclusion of engineering in the curriculum and worked to ensure
this through: discussions with politicians, including a visit by the
Education Minister to an EtF presentation at the Scottish Learning
Festival; discussions with senior civil servants responsible for
curriculum policy; discussions with CfE subject development officers and
with the Scottish Qualifications Authority (SQA) development officer;
membership by officials responsible for CfE programme of the EtF Advisory
Board; and policy-maker participation in EtF seminars. As a result the
final definitive Curriculum for Excellence policy documentation and
practitioner guidance explicitly recognises the value of engineering in
school education, including Building
the Curriculum 1: The contribution of curriculum areas and Assessing
progress and achievement in learning and technologies.
As part of the project team, Hayward and MacBride engaged with
policy-makers on the implementation of strategies to ensure that the
concepts and activities central to engineering are more than policy
aspirations and are embedded in pupils' experiences. In 2010 the Scottish
Government extended its commitment to improving science education to
explicitly include engineering in the title of its new policy, Science
and Engineering 21 — Action Plan. This made explicit references to
the EtF findings, endorsed and adopted several of its recommendations and
made commitments to build on the work of EtF. Michael Russell, Cabinet
Secretary for Education, launched the Action Plan on 1 March 2010 in
Balfron High School, one of the schools participating in the EtF research,
against a background of EtF experiments and in the presence of the EtF
research team. Scotland's Chief Scientific Advisor emphasised at the
event: `It's hugely important to our world-leading research base that we
continue to attract our best young minds into science and engineering.'
Creation and development of Science, Technology, Engineering, and
Maths (STEM) Central
The EtF project found that embedding engineering in schools requires
teachers who are confident and informed about contemporary engineering. To
that end, the Scottish Government's Action Plan committed Education
Scotland to create STEM
Central. A one-stop website for STEM education in schools, STEM
Central provides online resources for teachers to increase their awareness
and support their teaching of engineering. The Action Plan specifically
recommended that the outcomes of EtF be taken forward to address the need
for practical support for teachers and learners. The Action Plan
stipulated the need for: publication of `support for staff' materials to
illustrate engineering as a context for learning through the use of
resources produced by Engineering the Future and others. Following
discussions with Education Scotland, EtF researchers were invited to lead
the academic team developing the proposal for this portal.
The researchers then participated in the advisory committee for STEM
Central and one member was employed as project manager. The use of
real-life examples to support learning in the sciences — a key EtF
recommendation — was adopted as a central feature of STEM Central.
Education Scotland staff have promoted STEM Central and provided cases
studies of its use. The second report of the national Science and
Engineering Education Advisory Group welcomed the contribution of STEM
Central and recommended that Education Scotland continue to expand its
focus.
The teaching resources developed within EtF were uploaded by Education
Scotland into the Glow intranet, an online resource open to all teachers
in Scottish schools, with a direct link to the project website. The
materials made clear links to curricular documentation to ensure
consistency with policy guidance that could be used immediately by
teachers in their classrooms. For the brief period 01 December 2012 to 18
April 2013, the EtF website had 16,204 hits (4,608 unique hosts) and 7,627
downloads.
Extending the model into primary education
The Scottish Government commissioned Hayward, MacBride and Spencer, as
part of the academic team, to extend the EtF model to primary schools and
to develop engineering education materials for this age group. This has
involved 50 primary teachers and 1100 pupils to date and has resulted in
significant interim impacts, including:
- collaborative production of a range of teaching and support materials
with primary schools
- collaborative production with engineers in industry and higher
education of video materials to support engineering education in primary
schools
- introduction to primary teachers of material developed in other
collaborative research projects (e.g. FP7 Pollen and Fibonacci)
- building capacity to enable people to learn from one another: teachers
working together and teachers and engineers working together.
A number of these materials have been adapted and uploaded to the
Education Scotland STEM Central website for use by all teachers, and
Education Scotland intends to expand the range of material available
online.
Development in the Scottish Qualifications Authority (SQA)
Qualifications
Close cooperation between secondary school, university and other
education stakeholders ensured that project findings were incorporated in
the school qualifications system. EtF findings emphasised the importance
of research into real life issues in creating meaningful learning
experiences in the sciences and technologies. EtF engaged with the SQA
during its development processes and included SQA participation in its
Advisory Board and in its seminars. As such, the research findings are
reflected in a number of developments in SQA National Qualifications:
- the development of SQA Advanced Higher Physics Practical
Investigations related to engineering, designed to be carried out in
schools.
- the development of a model for SQA Advanced Higher Physics Practical
Investigations in which candidates worked in a university where they
used state-of-the-art electronic engineering material and drew on the
expertise of the university.
- the development of a `compressed' interdisciplinary course focusing on
engineering and alternative energy through which candidates gained
Intermediate 2 awards in Physics, Technological Studies and Economics in
the time usually taken for two such courses.
- introduction of a `Researching Physics' Unit in revised Physics Higher
Arrangements.
- restructuring of National Qualifications (NQ) Technologies
qualifications to provide a clear and explicit progression route in
engineering from National 4 to Advanced Higher.
Sources to corroborate the impact
Influencing education policy
1.`SCIENCE & ENGINEERING 21 — Action Plan for Education for
the 21st Century' (see Workstream 2 on pg 6), available at:
Link
2. EtF Project Advisory Board List and Board Meeting minutes and
Project Seminar Presentations to show participation and engagement of
civil servants from the Scottish Executive and education officers
responsible for development of Curriculum for Excellence with the
research. [Available from HEI]
Influencing SQA Qualifications
3. See Qualifications Development Officer, SQA, video and
transcript discussing introduction of new Researching Physics Unit in the
revised Higher Physics qualification. Available at:
Link
Contribution to STEM Central
4. EtF Project Seminar Delegate Lists and Final Reports that show
engagement with the different stakeholders mentioned. [Available from
HEI].
5. Response to EtF Conference from Her Majesty's Inspectorate of
Education. [Available from HEI]
6. STEM Central website for example of resources produced by EtF
Project Members: Link
7. In particular, see `Sound', `Games' and `Rescue Vehicles'
Leaning Resources developed by the EtF Project Team Members, accessible
through STEM Central Learning in Context at: Link