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STEM Education in the Primary School: A Teacher's Toolkit [Multiple-component retail product]

(Curtin University, Perth), (Macquarie University, Sydney), (Queensland University of Technology), (Central Queensland University)
  • Formatas: Multiple-component retail product, 360 pages, aukštis x plotis x storis: 255x190x16 mm, weight: 820 g, Worked examples or Exercises, Contains 1 Paperback / softback and 1 Digital online
  • Išleidimo metai: 22-Jan-2021
  • Leidėjas: Cambridge University Press
  • ISBN-10: 1108868495
  • ISBN-13: 9781108868495
Kitos knygos pagal šią temą:
  • Formatas: Multiple-component retail product, 360 pages, aukštis x plotis x storis: 255x190x16 mm, weight: 820 g, Worked examples or Exercises, Contains 1 Paperback / softback and 1 Digital online
  • Išleidimo metai: 22-Jan-2021
  • Leidėjas: Cambridge University Press
  • ISBN-10: 1108868495
  • ISBN-13: 9781108868495
Kitos knygos pagal šią temą:
This book introduces pre-service teachers to the theory, skills and practice of teaching STEM through a project-based learning approach. Science, technology, engineering and mathematics are presented as professions, mindsets and practices, and are integrated with the Australian Curriculum through a school garden project case study.

STEM Education in the Primary School introduces pre-service teachers to the theory, skills and practice of teaching STEM through a project-based learning approach. Science, technology, engineering and mathematics are presented as professions, mindsets and practices, and each element of STEM is integrated with the Australian Curriculum through a school garden project case study. Popular STEM topic areas, such as health, shelter and space, are explored using tested and age-appropriate project examples that illustrate the translation of STEM ideas to classroom practice. This textbook connects current research in STEM education to teaching practice through detailed discussion of topics including assessment, learning spaces, community and STEM futures. Encouraging readers to consolidate their knowledge, the text is supported by short-answer and reflection questions, information boxes and real-world scenarios. Suggested activities and downloadable templates in the VitalSource enhanced eBook provide guidance for readers when implementing projects and practices in their classroom.

Daugiau informacijos

This book introduces pre-service teachers to the theory, skills and practice of teaching STEM through a project-based learning approach.
About the authors xi
Acknowledgements xiii
List of acronyms and abbreviations
xvi
Using your VitalSource enhanced eBook xviii
PART 1 IS THIS STEM?
1(106)
Chapter 1 Introducing STEM
2(20)
Overview
2(1)
Learning aims
3(1)
Provocation
3(1)
How to use this book
3(1)
What is STEM and why do we need STEM education?
4(1)
Project-based learning and how it has been adopted in this book
5(7)
A Garden Challenge project as an example of using the integrated STEM PBL model
12(6)
Conclusion
18(1)
Summary
18(1)
Bringing it together
18(1)
References
19(3)
Chapter 2 Science
22(19)
Overview
22(1)
Learning aims
23(1)
Provocation
23(1)
What is a scientist, and what do scientists do?
23(3)
Science in the Australian Curriculum
26(3)
Teaching with a `science mindset' in a primary classroom
29(5)
Science in the Garden Challenge project
34(4)
Conclusion
38(1)
Summary
38(1)
Bringing it together
38(1)
Further resources
38(1)
References
39(2)
Chapter 3 Technology
41(24)
Overview
41(1)
Learning aims
42(1)
Provocation
42(1)
What is technology and what do technologists do?
43(3)
Technology in the Australian Curriculum
46(3)
The structure of the two subjects
49(7)
Teaching with a `technology mindset' in a primary classroom
56(1)
Technology in the Garden Challenge project
57(4)
Conclusion
61(1)
Summary
61(1)
Bringing it together
62(1)
Further resources
62(1)
References
63(2)
Chapter 4 Engineering
65(26)
Overview
65(1)
Learning aims
66(1)
Provocation
66(1)
What is engineering and what do engineers do?
67(7)
Engineering in the Australian Curriculum
74(9)
Teaching with a `engineering mindset' in a primary classroom
83(2)
Engineering in the Garden Challenge project
85(3)
Conclusion
88(1)
Summary
88(1)
Bringing it together
88(1)
Further resources
88(1)
References
89(2)
Chapter 5 Mathematics
91(16)
Overview
91(1)
Learning aims
92(1)
Provocation
92(1)
What is mathematics, and what do mathematicians do?
93(2)
Mathematics in the Australian Curriculum
95(1)
Teaching with a `mathematics mindset' in a primary classroom
96(5)
Mathematics in the Garden Challenge project
101(2)
Conclusion
103(1)
Summary
104(1)
Bringing it together
104(1)
Further resources
105(1)
References
105(2)
PART 2 HOW DO I STEM?
107(216)
Chapter 6 Energy
108(37)
Overview
108(1)
Learning aims
109(1)
Provocation
109(1)
Alternative conceptions associated with energy
110(3)
Integrated STEM projects linked to energy
113(1)
Years F-2: Musical instruments
114(9)
Years 3-4: Who can design the `coolest' container?
123(9)
Years 5-6: Solar panels and energy audit
132(11)
Conclusion
143(1)
Summary
143(1)
Bringing it together
143(1)
Further resources
144(1)
References
144(1)
Chapter 7 Health
145(33)
Overview
145(1)
Learning aims
146(1)
Provocation
146(2)
Alternative conceptions associated with health
148(1)
Integrated STEM projects linked to health
149(2)
Years F--2: Sun-safe hat for a pet on a windy day
151(8)
Years 3--4: Optimal exercise program for children
159(9)
Years 5--6: Online social media platform for tweens
168(8)
Conclusion
176(1)
Summary
176(1)
Bringing it together
176(1)
Further resources
176(1)
References
177(1)
Chapter 8 Shelter
178(33)
Overview
178(1)
Learning aims
179(1)
Provocation
179(1)
Examples of shelters, homes and communities
179(4)
Integrated STEM projects linked to shelter
183(1)
Years F--2: Weatherproof dragon homes
184(8)
Years 3--4: Building bird houses
192(8)
Years 5--6: We need a new school
200(9)
Conclusion
209(1)
Summary
209(1)
Bringing it together
209(1)
Further resources
210(1)
References
210(1)
Chapter 9 Coding
211(34)
Overview
211(1)
Learning aims
212(1)
Provocation
212(1)
What is coding?
213(1)
Integrated STEM projects linked to coding
214(1)
Years F--2: Life-cycle of a frog
215(9)
Years 3--4: Farm tractors
224(10)
Years 5--6: Ferris wheel
234(9)
Conclusion
243(1)
Summary
243(1)
Bringing it together
243(1)
Further resources
243(1)
References
244(1)
Chapter 10 Space
245(38)
Overview
245(1)
Learning aims
246(1)
Provocation
246(1)
Alternative conceptions associated with space
247(4)
Integrated STEM projects linked to space
251(1)
Years F--2: Moon buggy
252(9)
Years 3--4: Mars colony
261(11)
Years 5--6: Cooking on Mars
272(8)
Conclusion
280(1)
Summary
280(1)
Bringing it together
280(1)
Further resources
281(1)
References
282(1)
Chapter 11 STEM learning spaces
283(18)
Overview
283(1)
Learning aims
284(1)
Provocation
284(1)
Research on STEM learning spaces
285(1)
Key aspects of STEM spaces and resources
285(6)
Materials and technology for STEM learning spaces
291(6)
STEM mindset
297(2)
Conclusion
299(1)
Summary
299(1)
Bringing it together
299(1)
Further resources
300(1)
References
300(1)
Chapter 12 Assessment and STEM
301(22)
Overview
301(1)
Learning aims
302(1)
Provocation
302(1)
An introduction to assessment
303(2)
Project-based learning and assessment
305(2)
Assessment and integrated STEM projects within the Australian Curriculum
307(1)
Types of assessment
308(9)
Assessing the General Capabilities in integrated STEM projects
317(1)
Conclusion
318(1)
Summary
318(1)
Bringing it together
318(1)
Further resources
319(1)
References
319(4)
PART 3 WHY STEM?
323(43)
Chapter 13 Theoretical foundations of STEM education
324(15)
Overview
324(1)
Learning aims
325(1)
Provocation
325(1)
Historical development of STEM education
326(2)
Potential issues when implementing STEM education in Australia
328(2)
Key components of effective STEM learning environments
330(5)
Conclusion
335(1)
Summary
335(1)
Bringing it together
335(1)
Further resources
336(1)
References
336(3)
Chapter 14 STEM connections
339(14)
Overview
339(1)
Learning aims
340(1)
Provocation
340(1)
Making STEM connections
340(1)
Government STEM connections
341(5)
Educational STEM connections
346(1)
Local industry and community STEM connections
347(3)
Conclusion
350(1)
Summary
350(1)
Bringing it together
350(1)
Further resources
350(1)
References
351(2)
Chapter 15 The future of STEM education
353(13)
Overview
353(1)
Learning aims
354(1)
Provocation
354(1)
Historical overview of STEM education
355(1)
Careers of the future
355(3)
Global STEM
358(1)
STEM in the future
359(4)
Creating a STEM identity
363(1)
Conclusion
364(1)
Summary
364(1)
Bringing it together
365(1)
Further resources
365(1)
Authors' note
366(1)
References 366(2)
Index 368
Dr Anne Forbes is a Senior Lecturer in STEM Education in the Macquarie School of Education at Macquarie University, Sydney, where she teaches in a range of units in pre-service teacher education and conducts accredited in-service teacher professional learning to enthuse, inform and inspire learning and teaching through science education. Anne is particularly interested in how to advance the learning and teaching of science education in schools through the development of communities of science practice. This work has manifested as an outreach program named MyScience@MQ. Anne is also working with IBM Corporation to implement a Global Curriculum Framework for Artificial Intelligence. She has been invited to share her research internationally as a keynote speaker, and to share her ideas about STEM education with parents, teachers and principals as an invited speaker. Dr Vinesh Chandra is an Associate Professor in Technology, STEM and Global Education at Queensland University of Technology. He teaches in undergraduate and postgraduate courses that focus on these areas. He also supervises postgraduate students whose research interests lie in these fields. Vinesh has also led and worked on a number of STEM Education projects in Australia and overseas, including for UNESCO. He leads the SEE Project (http://theseeproject.org), which is actively involved in advancing the print and digital literacy agenda in rural and remotes schools in developing countries. His recent book Share Engage Educate: SEEding Change for a Better World (2020) highlights some of the work he has undertaken with his team in eight developing countries. Dr Linda Pfeiffer is a Senior Lecturer in the School of Education and the Arts, CQUniversity, based at the Gladstone Marina campus. Linda is the Australia Pacific LNG STEM Research Central project lead, and she coordinates the Science and STEM units in the undergraduate and postgraduate Primary and Early Childhood Education courses. Linda has a broad range of successful teaching experiences in primary, secondary and tertiary education and she is a Research Higher Degree Supervisor. Linda's passion is STEM education and engagement, and she has received two CQUniversity Engagement Opal Awards. Linda was integral in the establishment of the CQ STEM Hub network, the CQUniCares Indigenous STEM Camp and the CQUniversity STEM Leadership Team. Linda works with industry, community groups and local schools to improve STEM outcomes across all sectors and she has built a reputation for successful STEM outcomes. Linda has won numerous prizes including the 2016 Women in STEM Research Prize and was a semi-finalist for the 2019 Queensland Community Achievement Awards for her work with schools and the community on STEM education and engagement projects. Dr Rachel Sheffield is an Associate Professor in the School of Education at Curtin University, Australia and is a passionate science educator. She researches and publishes in science, STEM education and professional identity and is currently exploring the transversal competencies and their role in STEM. Rachel has won several Faculty, University and National awards for Teaching Excellence, and was awarded an Executive Endeavour Fellowship in 2016. She is also the Chair of the prestigious Curtin Academy for excellence in Learning and Teaching. Her research and grants in STEM education has seen her travel to India, Indonesia and Malaysia supporting pre-service teachers and primary students to develop expertise in STEM content and 21stcentury skills. Her STEMinist research group supporting women in STEM education were nominated for the 2019 Premiers Science Awards for their impact on women in STEM (www.steminists.weebly.com).