Building Bridges To Successful Learning In Science And Technology? Linking Engineering And Science In Primary Education Across Europe
Author(s):
Ann-Marie Bathmaker (presenting / submitting) Yvette Solomon (presenting) Dave Heywood
Conference:
ECER 2012
Format:
Paper

Session Information

27 SES 03 A, Parallel Paper Session

Parallel Paper Session

Time:
2012-09-18
17:15-18:45
Room:
ESI 3 - Aula m
Chair:
Sheila Henderson

Contribution

The ENGINEER project is a three year, EU-funded project, which aims to support the development of an inquiry-based learning approach in primary science across ten European countries. The project seeks to promote interest in science and technology via engagement with a suite of engineering design challenges, based on the successful ‘Engineering is Elementary’ (EiE) model developed by the Boston Museum of Science in the USA (Cunningham and Lachapelle, 2012). 

This paper focuses on the opportunities and challenges of borrowing and sharing a curriculum innovation across different European countries. It considers interactions of the local, the regional and the global in constructing a new curriculum initiative for science and technology learning in primary education. The paper addresses three key questions related to the ENGINEER project as an example of curriculum/pedagogy ‘borrowing’ based on a ‘what works’ approach to education:

1.       the nature of interdisciplinary learning to support science education;

2.       the dynamics involved in transferring a particular pedagogic approach into a range of new historical/cultural contexts, and

3.       the parameters within which we should evaluate success in a cross-European education project.

The basic concept underpinning EiE and hence ENGINEER is that individual engineering challenges are matched to an area of the primary science curriculum. Then, when pupils learn particular science concepts followed by a related engineering challenge, their learning of science and their understanding of ‘what is engineering’ will be enhanced (Lachapelle et al, 2010).  However, the nature of the match is far from straightforward.  As Heywood and Parker (2001) note, naïve conceptual understanding is often at odds with scientific understanding, and it is not always clear how scientific enquiry skills lead directly to developing conceptual understanding.  We are even less clear about how and whether engagement in engineering processes will actually enhance science understanding.  For example, while we might improve our understanding of what makes a successful bridge structure, we do not necessarily gain understanding of how the scientific principles of forces or the molecular structure of materials underlying this success actually work.  Thus one set of questions for the ENGINEER project involves understanding the link between the engineering design process and the scientific enquiry process:  How does science inform the engineering problem solving process, and how does this in turn inform scientific understanding?

A related issue concerns the impact on teachers’ practice of inquiry-based pedagogy, which is central to the EiE/ENGINEER design process (Cunningham et al, 2010).  There are early signs that what is understood by inquiry-based learning varies enormously across different countries and contexts.  A challenge for the ENGINEER project is therefore the design of units which can meet the brief of changing local pedagogic cultures, radically in some areas, whilst working within varying curriculum and accountability contexts which have been identified in a baseline survey. 

Together these issues raise questions of how best to evaluate progress and success in the project, in particular the extent to which teaching and learning, and curriculum innovation, should be directly connected to the assessment of pupil knowledge and outcomes.

Method

The paper investigates the issues outlined above, drawing on research and evaluation data from the first year of the ENGINEER project. This includes: 1. a baseline survey of curriculum structures and pedagogic practices in the ten partner countries, which has gathered data on similarities and differences in science curricula and the use of inquiry-based learning as an approach to learning science 2. evaluation data on the process of developing engineering challenges that are appropriate for local contexts, whilst also transferable to other country contexts; and data on teachers’ knowledge of science and engineering and confidence in teaching it 3. analysis of developing understandings within the project about the transferability of the US EiE project, and its application in a European context.

Expected Outcomes

The paper offers specific insights into the development of inquiry-based learning in the context of science education, and how this may both be enriched but also challenged through the perspectives of different country participants. The paper also provides an analysis of the processes of teaching, learning and curriculum development on a cross-European level, and identifies the strengths, challenges and limitations of seeking to develop innovative practice through collaboration across different countries. The findings of the project to date indicate that simply taking and transferring curriculum ideas from one country to another do not account for the contingent nature of local and regional differences, and show the importance of being mindful of the interaction of the local, regional and global in the development of cross-European projects.

References

Cunningham, C. M., & Lachapelle, C. P. (2012). Research and evaluation results for the Engineering is Elementary project: An executive summary of the first eight years. Boston, MA: Museum of Science; available from http://www.mos.org/eie/pdf/research/EiE_Executive_Summary_Jan2012.pdf accessed 27/01/12 Cunningham, C. M., Lachapelle, C. P., & Keenan, K. (2010). Elementary teachers’ changing ideas about STEM and STEM pedagogy through interaction with a pedagogically supportive STEM curriculum. Presented at the P-12 Engineering and Design Education Research Summit, Seaside, OR; available from http://www.mos.org/eie/pdf/research/Cunningham_R1362.pdf accessed 27/01/12 Heywood, D. & Parker, J. (2001) ‘Describing the Cognitive Landscape in Learning and Teaching about Forces’. International Journal of Science Education. 23, 11: 1177-1199 Lachapelle, C. P., Cunningham, C. M., Lee-St. John, T. J., Cannady, M., & Keenan, K. (2010). An investigation of how two Engineering is Elementary curriculum units support student learning. Presented at the P-12 Engineering and Design Education Research Summit, Seaside, OR; available from http://www.mos.org/eie/pdf/research/INSPIRE_paper_evaluation_FINAL.pdf accessed 27/01/12

Author Information

Ann-Marie Bathmaker (presenting / submitting)
University of Birmingham UK
Education
Birmingham
Yvette Solomon (presenting)
Manchester Metropolitan University UK
Manchester Metropolitan University UK

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