Science, Technology, Engineering And Mathematics

802 Words2 Pages

Science, Technology, Engineering and Mathematics (STEM), looks to build, via a strong cross curricula experience, students who will lead Australia in the coming decades (Office of the Chief Scientist. 2013). This goal is reflected via ACARA (2015), and MCEETYA (2008), each strongly supporting a lifelong learning policy for all Australian schools. The STEM lessons chosen within the two week block reflect this stance in a number of ways. Firstly, STEM lesson one is both designed and scheduled to work with the numeracy block immediately following. The skill set students will be learning in the following numeracy block will be derived from ACARA code (ACMNA083) writing number sentences to represent and answer questions which correlates to the STEM lesson code (ACTDIP009), using software to sort and calculate data (ACARA, 2015). This same theory of cross subject pollination can also be seen in STEM lesson two on Tuesday with the following subject being numeracy (ACMNA083). (See Appendix) Figure 1.1 and 1.2 show how Excel will be used to teach children both the power of the ICT program and how they can use it to assist with numeracy. Additionally via homework exercises students will also begin the cognitive process that data manipulation is conducted within the real world and the speed at which it can be processed allows more learning opportunities or discoveries to be made.
STEM lessons three, four and five focus more on ICT and general Excel skills that are themed around taking pride in ones work (See Appendix) Figure 1.3, thus they have not been scheduled to work with numeracy. However on Thursday week one, Inquiry time has been designed to support the STEM class to follow and a learning objective around reflective thought. AISTL (2...

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...e circular design allows for an important adaptation. If by lesson four week 1 student assessment reveals gaps in knowledge, parts of, or entire preceding lessons can be re-inserted to ensure students achieve lessons goals. For example as each lesson from week one to four has multiple skills to explore, teachers could take a single skill set of learnings from each of the first four lessons and build a fifth, sixth, seventh or so on additional learning opportunity.
STEM in primary school requires a level of risk taking, risk taking by the students but importantly by the teachers. STEM development pushes boundaries within the primary education domain, yet if schools choose to offer limited opportunity when students graduate from primary to secondary school they will be at greater disadvantage compared to their peers who have had an authentic STEM experience.

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