How Can Science and Technology Activities Be Made Engaging and Relevant in Primary Education?
Ellena Barnett - St20100668
How Can Science and Technology Activities Be Made Engaging and Relevant in Primary Education?
In a modern-day school, science is not just a school subject, as science and technology are continually changing and improving the way that we live our lives (Science Museum Group, 2017), it is important that today’s pupils and the future generation are prepare for technological advances and the future workforce they will be employed in.
Donaldson (2015), states how
science and technology are closely linked and how each depends upon the other;
Donaldson also states how science involves acquiring knowledge through
observation and experimentation, and technology applies this scientific knowledge
in practical ways. When teaching science and technology, it is important as a
teacher to understand how the subjects are linked and that there are more
benefits in teaching them together than separately, and having an integrated
curriculum is seen as positive for the increasing attention on science and
technology in primary education (Gresnight et
al., 2014). With a society filled with science and technology, it is
important that everyone has a basic level of understanding of it (Osborne and
Dillon, 2008) and with many people working in jobs related to science and
technology, a workforce with suitable schooling in these subjects is needs,
therefore the schools of today should foster a positive attitude towards these
subjects (OECD, 2007; Rocard et al.,
2007).
Science, Technology, Engineering
and Mathematics, also known as STEM, has become integrated within the
curriculum. Science is known to be the dominate subject within STEM reports,
with engineering education receiving less attention (Hudson et al., 2015), it is important that a
curriculum is created where STEM can be incorporated, as these experiences,
especially engineering, can bring a real-world aspect and engagement for
students towards understanding mathematical functions and scientific concepts (Sharp,
Zachary and Luttenegger, 2006; Youl, 2001). Currently in Wales, the curriculum
is being reformed through the Donaldson ‘Successful Futures’ Report (2015),
with science and technology being an Area of Learning and Experience for
pupils, which will capitalise on a child’s curiosity about our natural,
physical world and universe through investigating, understanding and
explaining. The aims of the Science and Technology Area of Learning and
Experience is to draw on physics, chemistry and biology; engineering; design
technology (food, textiles, resistant material); craft, design, graphics and
computer science; and learning from the 14-19 Learning Pathways domain of
mathematics, science and technology (Donaldson, 2015), with all these aspects
being covered, it is obvious to see how STEM has become incorporated, and
suggests that this curriculum reform will benefit the future workforce, as they
will have the skills required for the aspects of work that have a bigger
emphasis.


When on my placement, I was able
to see science and technology incorporated together. The children were learning
about filtration, the main activity of the lesson was for the children to
separate the objects or materials from the water, for example sand and water.
Throughout the lesson the children were using iPads along-side the main
activity to document their findings by taking pictures and putting them into
collages, that would later be printed and put into their workbooks. Through
this activity the children were using science and technology to learn and
complete their work, and how they can present their work and findings through
pictures using technological skills.
In conclusion, within primary
education it is important to create a curriculum that is engaging with science
and technology. Under Donaldson’s ‘Successful Futures’ the ability to create
this curriculum could become a reality, as well as being able to incorporate
STEM as to aid in a child’s development and understanding in science,
technology, engineering and mathematics that they will need for the future.
References:
Donaldson, G. (2015). Successful Futures: Independent Review of
Curriculum and Assessment Arrangements in Wales. Welsh Assembly Government.
Crown
Gresnnigt, R., Taconis, R., van Keulen, H., Gravemeijer, K.,
and Baartman, L. (2014). Promoting science and technology in primary education:
a review of integrated curricula, Studies
in Science Education, 50:1, pp. 47-84, DOI: 10.1080/03057267.2013.877694
Hudson, P., English, L., Dawes, L., King, D., and Baker, S.
(2015). Exploring Links between Pedagogical Knowledge Practices and Student
Outcomes in STEM Education for Primary Schools. Australian Journal of Teacher Education. 40(6), pp 134-151.
OECD. (2007). Pisa 2006: Science competencies for tomorrow’s
world. Executive summary Paris: Author.
Osborne, J., & Dillon, J. (2008). Science education in
Europe: Critical reflections. London: The Nuffield Foundation.
Rocard, M., Csermely, P., Jorde, D., Lenzen, D.,
Walwerg-Henriksson, H., & Hemmo, V. (2007).
Science education now: A
renewed pedagogy for the future of Europe. Luxemburg: Office for Official
Publications of the European Communities.
Science Museum Group (2017). Why is STEM important for Society?, Available at:
https://transformingpractice.sciencemuseum.org.uk/why-is-stem-important-for-society/
(Accessed: March 2018).
Sharp, J., Zachary, L., and Luttenegger, G. (2006). Using
engineering to understand reciprocal functions. Mathematics Teaching in the Middle School, 11(8), pp 390-396.
Techniquest (no date). About
us, Available at: https://www.techniquest.org/about-us/
(Accessed: March 2018).
Youl, J. (2001). Scientific and engineering in schools:
Making science more real. Australian
Science Teachers Journal, 47(1), pp 35-40.
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