deborah palmer, kate manuel and alesha bleakley - stem connections: an action research project
TRANSCRIPT
STEM Connections:
An Action Research Project
Integrating STEM education
Sydney, 28 July 2015
Deborah Palmer: Manager Curriculum (ACARA)
Kate Manuel: Manager National Projects (AAMT)
Alesha Bleakley: Cherrybrook Technology High
School NSW
Some observations
Australia needs:
• An agreed definition of what constitutes STEM
education in schools
• A coordinated and coherent national approach
to STEM education in schools
• A curriculum that contributes effectively to
STEM
• Well-resourced, innovative and prepared
teachers
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Improve and
strengthen the
ability of students
Improve
confidence and
capacity of
students
Increase student
enrolment in STEM
Encourage girls to
remain engaged
Connect classroom and
work opportunities
Why integrated STEM teaching?
Contributions of the
Australian Curriculum
Through learning area disciplines
• science
• technologies
• mathematics
Through general capabilities, particularly
• numeracy
• ICT and
• critical and creative thinking
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Opportunities for STEM
• exist within learning areas themselves
• are strengthened when the connections between
learning areas are emphasised
• are richest when learning areas combine to find
authentic learning opportunities for students in
answer to an identified problem or in the
creation of a product
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A significant common feature
Systems
• mathematics: consists of multiple interrelated
and interdependent concepts and systems
• science: systems as an overarching idea
• technologies: systems thinking and engineering
principles and systems
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Why integrated STEM teaching?
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• Connection between school experience
and the real world in authentic ways
• Mismatch between school experience and
employer / industry demands
• School learning needs relevance
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School teams
Incorporating industry
Student Outcomes
FeedbackSTEM integration
Integrated approach
The ACARA STEM Project
STEM Connections
• Integrated delivery of STEM disciplines as
opposed to separate delivery
• Project based
• Teaching teams
• Evidence
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STEM Connections: The aims
• Increase knowledge, understanding and skills in
STEM
• Connections between classwork and future work
• Develop school-industry initiatives
• Improve confidence in STEM and increase
capacity to transfer skills
• Encourage girls to remain in STEM subjects
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Schools
• Broad range of schools
• Capacity to provide teams around the
three disciplines of maths, science and
technology
• Model of delivery to suit school
• Support from school leadership
• Suitable selection of project topic
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Project topics
• Science/sustainability
Biofuels, Water testing, Solar panels, Sustainable
garden
• Design and Technology
Mousetrap dragsters, Green wall, Engineering
• STEM Classes
App development, Environment, F1 Challenge
• Media/marketing
Cosmetic product development and marketing,
Endangered species, Student health
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Models
• Whole year level roll-out, fully integrated,
teaching team
• Several classes, separate disciplines,
incomplete overlap of students
• Special class(es) (G & T, D & T) with one
main teacher, guest lecturers
• Special class with teaching team
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Expectations of schools
• Participate in introductory two-day workshop
• Submit project plans, respond to feedback
• Meet timelines
• Arrange school visits
• Engage in filming Illustrations of Practice (with
ACARA and ESA)
• Submit final report, assessment tasks, student work
samples
• Participate in final two-day workshop
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Background
• 2000 students year 7-12
• 140 Staff
• Science- 18 Staff (1 HT)
• Technology- 23 Staff (3 HT)
• Mathematics- 18 Staff (2 HT)
• High performing school
• Non selective
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STEM Team
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Alesha Bleakley
CTHS STEM Coordinator
Technology/ Engineering
George An
Science
Yetsum Yang
ScienceEddie Woo
Mathematics
Stage 5 STEM Class
• 22 Students
• 15 Male/ 7 Female
• 12 Year 9
• 10 Year 10
• Timetabled class 6 periods/ cycle
• 53 minutes/ period
• Semester course
• 1 core teacher
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Project Brief
• In groups, students are to investigate the effect of overpopulation
within the Cherrybrook Technology High School environment,
particularly addressing the area of the school referred to as the top
playground. Using scientific and mathematical tools, you are to
devise a potential solution to ameliorate the targeted aspect of the
school environment. The solution is to be presented in groups of 2-3
students in a virtual model and some aspects of a physical model.
• Our project addresses the increasing urbanisation of our local
community, as visible within our school grounds through the
degradation of our common spaces and topsoil erosion. There are
other significant effects that are not as tangible, such as congestion
within the school between lessons as students move from one class
to another, as well as children not being able to remain physically
active due to the lack of available space during recess and lunch.
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Activities• Lateral thinking challenges
• Field of Mars excursion
• Athletics carnival canteen
• Calculating irregular shapes
• Guest speakers
– Longen Lan (past students studying advanced science & Law)
– HT Administration (tour to explain trees and factors affecting design)
• Traffic flow observations
• Soil sample testing
• Introduction to SketchUp
• Idea generation activities
• Budgeting
• Time management
• Long term planning
• Project presentation evening
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Speed bumps
• Assessing integration
• Time
• Class swapping (fine for short term)
• Keeping faculties up to speed
• Co-ordination was more complicated than
usual (cross faculty)
• Large project
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What Worked?• The project was something the students could connect with
and felt passionate about
• Having a dynamic STEM team who were prepared to be
flexible and collaborative
• Fortnightly STEM Team meetings
• Having external presenters attend when needed in the
program
• 6 periods of timetabled classes
• Expectations are suspended
• Extra effort for staff reaped positive rewards
• On the school plan
• Creating a CTHS STEM ethos
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