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<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (<strong>Foundation</strong>)<br />

Published by R.I.C. Publications ® 2017<br />

Copyright © R.I.C. Publications ® 2017<br />

ISBN 978-1-925431-93-3<br />

RIC–6170<br />

Titles in this series:<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (<strong>Foundation</strong>)<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (Year 1)<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (Year 2)<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (Year 3)<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (Year 4)<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (Year 5)<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (Year 6)<br />

All material identified by is material subject to copyright<br />

under the Copyright Act 1968 (Cth) and is owned by the Australian<br />

Curriculum, Assessment and Reporting Authority 2017.<br />

For all Australian Curriculum material except elaborations: This is<br />

an extract from the Australian Curriculum.<br />

Elaborations: This may be a modified extract from the Australian<br />

Curriculum and may include the work of other authors.<br />

Disclaimer: ACARA neither endorses nor verifies the accuracy of the<br />

information provided and accepts no <strong>res</strong>ponsibility for incomplete or<br />

inaccurate information.<br />

In particular, ACARA does not endorse or verify that:<br />

• The content descriptions are solely for a particular year and<br />

subject;<br />

• All the content descriptions for that year and subject have been<br />

used; and<br />

• The author’s material aligns with the Australian Curriculum content<br />

descriptions for the relevant year and subject.<br />

You can find the unaltered and most up to date version of this<br />

material at https://www.australiancurriculum.edu.au/<br />

This material is reproduced with the permission of ACARA.<br />

Copyright Notice<br />

A number of pages in this book are worksheets.<br />

The publisher licenses the individual teacher<br />

who purchased this book to photocopy these<br />

pages to hand out to students in their own<br />

classes.<br />

Except as al<strong>low</strong>ed under the Copyright Act 1968,<br />

any other use (including digital and online uses<br />

and the creation of overhead transparencies<br />

or posters) or any use by or for other people<br />

(including by or for other teachers, students or<br />

institutions) is prohibited. If you want a licence<br />

to do anything outside the scope of the BLM<br />

licence above, please contact the Publisher.<br />

This information is provided to clarify the limits<br />

of this licence and its interaction with the<br />

Copyright Act.<br />

For your added protection in the case of<br />

copyright inspection, please complete the form<br />

be<strong>low</strong>. Retain this form, the complete original<br />

document and the invoice or receipt as proof<br />

of purchase.<br />

Name of Purchaser:<br />

Date of Purchase:<br />

Supplier:<br />

School Order# (if applicable):<br />

Signature of Purchaser:<br />

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Internet websites<br />

In some instances, websites or specific URLs may be recommended. While these are checked and rechecked at the time of<br />

publication, the publisher has no control over any subsequent changes which may be made to webpages. It is strongly recommended<br />

that the class teacher checks all URLs before al<strong>low</strong>ing students to access them.<br />

View sample pages online<br />

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Email: mail@ricpublications.com.au<br />

ii<br />

<strong>Science</strong>: YEAR<br />

978-1-925431-93-3 R.I.C. Publications® – www.ricpublications.com.au<br />

A <strong>STEM</strong> APPROACH<br />

F


Foreword<br />

<strong>Science</strong>: A <strong>STEM</strong> <strong>approach</strong> (<strong>Foundation</strong> to Year 6) is a series of books written with the intent to support<br />

Australian Curriculum <strong>Science</strong> while offering a way to introduce a <strong>STEM</strong> project based on the science<br />

concepts taught.<br />

All <strong>Science</strong> Understanding and <strong>Science</strong> Inquiry Skills for each unit are included, and any connecting<br />

Technologies or Mathematics curriculum concepts are also incorporated.<br />

The <strong>STEM</strong> project al<strong>low</strong>s students to apply the science knowledge and understanding, and includes<br />

any curriculum links to Technologies and Mathematics curriculum.<br />

If you would like us to feature your completed <strong>STEM</strong> projects on our website, please<br />

email a photograph, video or audio of the project to<br />

.<br />

If you would like to view completed <strong>STEM</strong> projects and get some inspiration, please<br />

go to .<br />

Introduction ............................................................ iv<br />

Unit description ................................................ iv – vi<br />

Biological sciences:<br />

Living things have needs............................... 1–36<br />

Overview ......................................................... 2–3<br />

Lesson 1 .......................................................... 4–7<br />

Lesson 2 ........................................................ 8–11<br />

Lesson 3 ..................................................... 12–15<br />

Lesson 4 ..................................................... 16–19<br />

Lesson 5 ..................................................... 20–21<br />

Lesson 6 ..................................................... 22–25<br />

Assessment ................................................ 26–28<br />

<strong>STEM</strong> project ............................................. 29–36<br />

Chemical sciences:<br />

Materials have properties .......................... 37–72<br />

Overview .................................................... 38–39<br />

Lesson 1 ..................................................... 40–43<br />

Lesson 2 ..................................................... 44–47<br />

Lesson 3 ..................................................... 48–49<br />

Lesson 4 ..................................................... 50–53<br />

Lesson 5 ..................................................... 54–57<br />

Lesson 6 ..................................................... 58–60<br />

Assessment ................................................ 61–62<br />

<strong>STEM</strong> project ............................................. 63–72<br />

Contents<br />

Earth and space sciences:<br />

Daily and seasonal changes .................... 73–112<br />

Overview .................................................... 74–75<br />

Lesson 1 ..................................................... 76–79<br />

Lesson 2 ..................................................... 80–83<br />

Lesson 3 ..................................................... 84–87<br />

Lesson 4 ..................................................... 88–91<br />

Lesson 5 ..................................................... 92–95<br />

Lesson 6 ................................................... 96–100<br />

Assessment ............................................ 101–102<br />

<strong>STEM</strong> project ......................................... 103–112<br />

Physical sciences:<br />

How things move ................................... 113–145<br />

Overview ................................................ 114–115<br />

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Lesson 1 ................................................. 116–119<br />

Lesson 2 ................................................. 120–123<br />

Lesson 3 ................................................. 124–127<br />

Lesson 4 ................................................. 128–131<br />

Lesson 5 ................................................. 132–133<br />

Lesson 6 ................................................. 134–136<br />

Assessment ............................................ 137–138<br />

<strong>STEM</strong> project ......................................... 139–145<br />

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A <strong>STEM</strong> APPROACH<br />

iii


Introduction<br />

What is <strong>STEM</strong>?<br />

In a nutshell, <strong>STEM</strong> is the integration of science,<br />

technologies, engineering and mathematics<br />

concepts using project-based and cooperative<br />

learning. Educators have been integrating learning<br />

areas since the beginning of time, so although the<br />

idea behind <strong>STEM</strong> is not new, this series hopes<br />

to make it easier for you to execute learning<br />

integration in the classroom.<br />

The Australian Government, and governments around the world, have placed a high priority on<br />

<strong>STEM</strong> skills. The future workforce will require current students to be creative and critical thinkers who<br />

can collaborate and design solutions to problems. The skills utilised in <strong>STEM</strong> have never been more<br />

valued.<br />

<strong>STEM</strong> education aims to prepare students for the roles of the future with skills such as innovation,<br />

creativity, reasoning, problem-solving, and technical science skills such as questioning, observing,<br />

systematic experimentation, and analysis and interpretation of data.<br />

Format of this book<br />

This series focuses on delivering a comprehensive and contemporary science program, culminating in<br />

a <strong>STEM</strong> project which applies the scientific knowledge acquired during the science lessons. The series<br />

incorporates the use of online <strong>res</strong>ources, digital devices and iPad® applications where appropriate, in<br />

order to enhance the use of technology in the classroom.<br />

The units<br />

The science units are organised by sub-strand—Biological sciences, Chemical sciences, Earth and<br />

space sciences and Physical sciences. At the start of each sub-strand unit, keywords, a unit overview<br />

and curriculum scope and sequence are provided, as shown be<strong>low</strong>.<br />

Each unit contains a term’s worth of work with 5–7 lessons, a summative assessment of the science<br />

knowledge with teacher notes, and a <strong>STEM</strong> project.<br />

Unit overview<br />

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Title page Unit overview Curriculum scope and<br />

sequence<br />

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A <strong>STEM</strong> APPROACH<br />

F


Unit description<br />

Lessons<br />

The lessons are based on science knowledge and skills. The lessons contain a page of teacher notes,<br />

outlining the inquiry questions, science strands and any links to technologies and mathematics<br />

concepts, fol<strong>low</strong>ed by a suggested lesson plan. Any <strong>res</strong>ource sheets required for the lesson fol<strong>low</strong> on.<br />

Teacher notes Lesson plan Resource sheets<br />

Assessment<br />

A teacher page is provided, outlining the assessment indicators and answers for the fol<strong>low</strong>ing<br />

assessment page(s). The assessment page(s) covers the science knowledge explored in the previous<br />

lessons.<br />

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Teacher notes<br />

Assessment page(s)<br />

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Unit description<br />

<strong>STEM</strong> project<br />

The <strong>STEM</strong> project provides students with the opportunity to apply what they have learned in the<br />

previous science lessons while incorporating technologies, engineering and mathematics concepts<br />

where possible. The project entails group collaboration and an extended learning period of<br />

3–4 weeks. This gives students a real-life experience of working with ‘colleagues’ to share ideas<br />

and test designed solutions. Each <strong>STEM</strong> project contains an overview listing <strong>STEM</strong> concepts and<br />

alternative project ideas, curriculum links, teacher notes and a group assessment rubric, and a project<br />

brief and checklist for students. Any <strong>res</strong>ource sheets required are also provided, as well as a selfassessment<br />

sheet.<br />

<strong>STEM</strong> project overview and<br />

<strong>STEM</strong> curriculum links<br />

Teacher notes<br />

Student brief<br />

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Project steps<br />

Resource sheets<br />

Self-assessment and<br />

Group assessment rubric<br />

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A <strong>STEM</strong> APPROACH<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

living things<br />

non-living things<br />

humans<br />

plants<br />

animals<br />

needs<br />

wants<br />

Keywords<br />

survive<br />

food<br />

nutrients<br />

water<br />

air<br />

sleep<br />

protection<br />

warmth<br />

shelter<br />

space<br />

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soil<br />

sunlight<br />

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Unit overview<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Living things have basic needs, including food and water (ACSSU002)<br />

Pages<br />

Lesson 1<br />

What basic needs do<br />

all living things have in<br />

common?<br />

Lesson 2<br />

What do humans need?<br />

Lesson 3<br />

What do other animals need?<br />

Lesson 4<br />

What do plants need?<br />

Lesson 5<br />

What happens if a plant’s<br />

needs are not met?<br />

Lesson 6<br />

What happens if humans’<br />

and animals’ needs are<br />

not met?<br />

Summative assessment<br />

Students engage in a school walk to identify living and<br />

non-living things. They explore the difference between<br />

living and non-living things in order to identify what all<br />

living things, including plants, humans and other animals,<br />

need to survive—food/nutrients, air and water.<br />

Students explore the specific needs of humans and<br />

identify the difference between our needs and our wants.<br />

They explore what is meant by the term ‘protection’ in<br />

relation to our needs (clothing, shelter, warmth, safety)<br />

and create a booklet to explain how they meet their five<br />

basic needs.<br />

Students explore the needs of animals, including air,<br />

food, water, sleep and protection and compare these<br />

needs to the needs of humans to find similarities and<br />

differences. They briefly discover who is <strong>res</strong>ponsible for<br />

taking care of the needs of animals at home, on a farm,<br />

in a zoo or in the wild and explain how wild animals meet<br />

their needs.<br />

Students explore the needs of plants, including air,<br />

sunlight, water, soil and space. They conduct an<br />

experiment to grow a radish from a seed and then use a<br />

p<strong>res</strong>entation application on an iPad ® to draw the needs of<br />

their plant and explain how they will cater for its needs.<br />

Students will need to provide ongoing care to their<br />

radish to ensure its needs are met.<br />

Students reflect on how well they catered for their plant’s<br />

needs and record their observations on a sheet of paper.<br />

Students participate in an interactive online activity to<br />

explore what happens if plants’ needs are not met and<br />

discuss who is <strong>res</strong>ponsible for taking care of plants at<br />

home, at school and in the wild.<br />

Students draw on prior experiences to predict what<br />

happens when humans’ and other animals’ needs are<br />

not met. They reflect on their individual needs to decide<br />

what need is not being met in each of the given images<br />

and draw images to meet this need. Students then play<br />

an interactive game created by RSPCA to help different<br />

pets get their needs.<br />

Students explain their knowledge of the needs of living<br />

things. They explain how knowing the needs of living<br />

things helps us to care for plants in the garden and<br />

animals at home.<br />

4–7<br />

8–11<br />

12–15<br />

16–19<br />

20–21<br />

22–25<br />

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<strong>STEM</strong> project<br />

Make a home for a parrot<br />

Students create a home for a parrot out of recycled<br />

materials. They must ensure they provide for the parrot's<br />

needs when designing and creating their bird home.<br />

26–28<br />

29–36<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Unit overview<br />

Curriculum scope and sequence<br />

SCIENCE UNDERSTANDING<br />

Lesson<br />

1 2 3 4 5 6 Assessment<br />

Living things have basic needs, including food and water (ACSSU002) 3 3 3 3 3 3 3 3<br />

SCIENCE AS A HUMAN ENDEAVOUR<br />

<strong>Science</strong> involves observing, asking questions about, and describing changes in,<br />

objects and events (ACSHE013)<br />

SCIENCE INQUIRY SKILLS<br />

Questioning and predicting<br />

<strong>STEM</strong><br />

project<br />

3 3 3 3 3 3 3<br />

Pose and <strong>res</strong>pond to questions about familiar objects and events (ACSIS014) 3 3 3 3 3 3 3<br />

Planning and conducting<br />

Participate in guided investigations and make observations using the senses<br />

(ACSIS011)<br />

Processing and analysing data and information<br />

3 3 3 3 3 3 3<br />

Engage in discussions about observations and rep<strong>res</strong>ent ideas (ACSIS233) 3 3 3 3 3 3 3<br />

Communicating<br />

Share observations and ideas (ACSIS012) 3 3 3 3 3 3 3 3<br />

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3


Lesson 1<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What basic needs do all living things have in common?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students learn how to identify living from non-living things<br />

in the environments they encounter in their everyday lives.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts including images and videos<br />

• playing an interactive game online<br />

• recording information in a table<br />

Background information<br />

• Living things have characteristics that distinguish<br />

them from non-living things. Living things grow, move,<br />

<strong>res</strong>pond to stimuli, reproduce and are dependent on<br />

their environment. These characteristics are explored by<br />

students in detail in Year 3.<br />

• In <strong>Foundation</strong> level, most students would suggest that<br />

living things grow and move. Some may suggest that they<br />

reproduce/have babies. This is sufficient at this level.<br />

• All living things, including humans, plants and other<br />

animals, have basic needs. While these needs vary slightly<br />

among each, the common needs are air, food and water.<br />

Meeting these physical needs al<strong>low</strong>s the living thing to<br />

move and grow.<br />

• Other needs that vary among living things include: shelter,<br />

protection, love, clothing/coverings, correct environmental<br />

conditions, soil and sunlight. These will be explored in<br />

later lessons.<br />

• For more information about teaching the concept of living<br />

things, go to .<br />

Assessment focus:<br />

• Use page 7 as a diagnostic<br />

assessment of the student’s<br />

knowledge of living and nonliving<br />

things and the three basic<br />

needs of all living things.<br />

• Make observational notes of the<br />

student’s ability to answer the<br />

two communicating questions<br />

in the Reflection section.<br />

Resources<br />

• Digital cameras<br />

• One copy of page 6 to<br />

display on the interactive<br />

whiteboard<br />

• One copy of page 7 for<br />

each student or each group<br />

• Online image—Basic<br />

needs of all living things<br />

at <br />

• Online song—'Living<br />

and non-living things'<br />

at <br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 1<br />

Lesson plan<br />

Introduction:<br />

1. As a class, conduct a school walk to find living and non-living things. Students, or an adult, can take<br />

digital photographs of the living and non-living things found in the school grounds. These may be<br />

displayed on a poster for future reference. Students think about and explain why they think each<br />

thing identified is living or non-living. QP<br />

Development:<br />

2. Using page 6, display the T-chart to show examples of living and non-living things. Using a think-pairshare,<br />

students answer the questions What makes something a living thing? What needs do all living<br />

things have in common to help them live? On a large piece of paper, write students' ideas. QP<br />

3. Individually or in small groups, students look at the images of living and non-living things on<br />

page 7 and draw a tick or cross in each box to identify the needs of each thing. Students review<br />

their checklist to identify the common needs of humans, plants and animals and complete the<br />

sentence, ‘All living things need ...’ Note: The specific needs of each type of living thing will be<br />

explored in later lessons. PC<br />

Differentiation<br />

• Less capable students may work together with an adult’s assistance to complete the checklist.<br />

• More capable students should be encouraged to write or draw as many living things as they can<br />

think of on the back of page 7.<br />

4. As a class, choose some students to share the sentence they wrote on page 7. Write the common<br />

needs on the whiteboard—food, water and air.<br />

5. Display the image of the three basic needs of all living things at .<br />

Students compare their sentence with the three needs shown in the image to determine if they<br />

were correct. PA<br />

6. Explain that all living things must have access to food, water and air to survive. If they don’t meet<br />

these needs, they may get sick.<br />

Reflection:<br />

7. Listen to a song about living and non-living things at . This song<br />

outlines the basic needs of a living thing.<br />

8. Using a think-pair-share or class discussion, students answer the questions How can we tell if<br />

something is living or non-living? and What are the basic needs of all living things? C<br />

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5


Lesson 1<br />

Living thing<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Non-living thing<br />

09:00 AM<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 1<br />

Is it a<br />

living<br />

thing?<br />

Does it<br />

need air?<br />

Is it living?<br />

Does it<br />

need food<br />

or nutrients?<br />

Does it<br />

need water?<br />

Does it<br />

need<br />

sunlight?<br />

Does it<br />

need<br />

shelter?<br />

Does it<br />

need soil?<br />

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Human<br />

Car<br />

Plant<br />

Dog<br />

Book<br />

Fish<br />

Tree<br />

Teddy bear<br />

All living things need ________________________________________________________________.<br />

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Lesson 2<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What do humans need?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students reflect on their own lives to identify their needs<br />

from their wants and examine how they meet their basic<br />

needs at home.<br />

Technology/Engineering/Mathematics links:<br />

• playing an interactive game online<br />

• fol<strong>low</strong>ing a series of steps to create a simple circle booklet<br />

Background information<br />

• All living things have basic needs, which vary slightly<br />

among humans, plants and animals. The common needs<br />

are air, food and water. Meeting these physical needs<br />

al<strong>low</strong>s a living thing to move, grow and reproduce.<br />

• As well as air, food and water, humans and other animals<br />

also need sleep and protection from environmental<br />

conditions. For most humans, protection comes in the<br />

form of clothing and shelter that al<strong>low</strong>s them to stay safe<br />

and maintain a healthy body temperature. For this reason,<br />

warmth and temperature are often included as basic<br />

needs.<br />

• Humans and some animals have physical, social and<br />

emotional needs. Their physical needs are basic needs<br />

that help them to survive. Social and emotional needs<br />

are those that give humans a sense of belonging and<br />

connection to the people and places they encounter, such<br />

as love and relationships.<br />

• A famous theorist, Abraham Mas<strong>low</strong>, developed a hierachy<br />

of human needs. This demonstrates that physical needs<br />

must be met before any other need. For more information<br />

on Mas<strong>low</strong>’s hierachy of needs, go to .<br />

Assessment focus:<br />

• Make observations about<br />

the student’s ability to make<br />

predictions that are related to<br />

the question and their ability<br />

to compare the definitions<br />

of needs and wants to their<br />

predictions.<br />

• Use the circle booklets as a<br />

formative assessment of the<br />

student’s knowledge of how<br />

they meet their five basic needs<br />

at home.<br />

Resources<br />

• Online interactive game—<br />

Living and non-living things<br />

at <br />

• One A3 piece of paper<br />

• Watch the online video,<br />

—Needs vs wants at <br />

• One A3 copy of page 10.<br />

Each poster may be<br />

coloured in, cut out and<br />

laminated to display in the<br />

classroom (optional)<br />

• One copy of page 11 for<br />

each student. The booklet<br />

may be cut out prior to<br />

the lesson to save time, if<br />

required<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 2<br />

Lesson plan<br />

Introduction<br />

1. As a class, display the interactive activity at and choose students<br />

to click on living or non-living for each item from the scene. Students explain their reasoning<br />

behind each choice in terms of its basic needs. Alternatively, students can brainstorm living things<br />

and explain their needs orally.<br />

Development:<br />

2. As a class, ask students What do humans need to survive? Do they need more than just food, air<br />

and water? Brainstorm things that humans need to survive and write students’ ideas on an A3 piece<br />

of paper to create a poster. Note: Add all ideas regardless of whether if they are a need or a want.<br />

Leave space at the bottom of the page to write a few sentences about humans wants and needs at<br />

the end of the lesson. QP<br />

3. Watch the online video Needs vs wants at . Alternatively, display the<br />

posters on page 10 to show examples of wants and needs. Using a think-pair-share, students<br />

answer the questions What is a need? and What is a want? PA<br />

4. Review the list of needs written on the ‘What do humans need to survive?' poster and put a cross<br />

through any that students think are wants, not needs. Discuss that as humans we have five basic<br />

needs—air, food, water, sleep and protection. Write these key words on the whiteboard. PA<br />

5. Individually, students reflect on how they meet their five basic needs and p<strong>res</strong>ent them using the<br />

circle booklet template on page 11. Students cut around the outside of the whole booklet.<br />

Note: Booklets may be cut by adult helpers prior to the lesson, if required. Students turn their<br />

booklet over and copy the five basic needs from the whiteboard–air, food, water, sleep and<br />

protection. Students fold each circle inwards to create a booklet. When this is complete, students<br />

open one circle at a time and draw images on the inside of each circle to show how they meet each<br />

particular need in their lives. PC PA<br />

Differentiation<br />

• Less capable students can have the booklet prepared for them with the five needs written on the<br />

outside. Adult helpers can assist students to think of how they meet their needs at home.<br />

• More capable students should be encouraged to write a short sentence about how they meet<br />

their needs inside each circle. For example, inside the shelter circle students may write, I live in<br />

a house.<br />

6. When the circle booklets are completed, select students to share their pages with the class. C<br />

Reflection:<br />

7. As a class, reflect on what humans want and need by referring to the A3 poster created in the<br />

development. At the bottom of the page, write the sentence starters Humans need ... and Humans<br />

want ... Ask students to name the things that humans need to survive and name some examples<br />

of our wants to complete the sentences. Note: Keep this poster accessible or on display for later<br />

lessons. C<br />

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Lesson 2<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

AIR<br />

SUNLIGHT<br />

SHELTER<br />

CLOTHING<br />

PETS<br />

BOOKS<br />

NEEDS<br />

SLEEP<br />

Things I MUST<br />

have to live.<br />

WANTS<br />

Things I WANT but<br />

don’t need to live.<br />

LOLLIES<br />

CAR<br />

WATER<br />

GAMES<br />

FOOD<br />

TOYS<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 2<br />

'Humans need ...' circle booklet<br />

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Lesson 3<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What do other animals need?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students think about animals they have observed in their daily<br />

lives to investigate how animals meet their needs.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including videos and online songs<br />

• sorting information cards into undefined categories<br />

Background information<br />

• All animals, including humans, have five basic needs: air,<br />

food, water, sleep and protection from environmental<br />

conditions. Wild animals also require protection from<br />

predators and human impacts.<br />

• Domesticated animals such as pets, farm animals and zoo<br />

animals have some or all of their needs provided for by<br />

humans. Wild animals meet their needs by themselves.<br />

• How animals meet their needs:<br />

Food—Animals use various feeding behaviours such as<br />

hunting, grazing or scavenging to find sources of food.<br />

Water—Animals seek water from various water sources<br />

such as rivers or lakes. Some animals obtain all of their<br />

water from their food.<br />

Air—Animals breathe air in different ways. Some have<br />

lungs and breathe like humans. Others extract air from<br />

water bodies.<br />

Sleep—Animals sleep at different times of the day and in<br />

different ways. Some animals, like sharks, continue to<br />

move while they are sleeping. Others hibernate for long<br />

periods of time.<br />

Protection—Animals build, find or fight for space/shelter.<br />

They also need featu<strong>res</strong> and behaviours that help them<br />

protect themselves against predators.<br />

Assessment focus:<br />

• Monitor students' contributions<br />

to the animal needs matching<br />

game to ensure all students are<br />

contributing to the answers.<br />

• Use page 15 as a formative<br />

assessment of the student’s<br />

knowledge about the needs<br />

of animals.<br />

Resources<br />

• A3 poster of human needs<br />

created in Lesson 2<br />

• One copy of the animal<br />

needs cards on page 14<br />

for each student or group.<br />

These must be cut out and<br />

shuffled prior to the lesson<br />

• Online video—Animal needs<br />

at <br />

• One copy of page 15 for<br />

each student<br />

• Online song—'The needs of<br />

an animal' at <br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 3<br />

Lesson plan<br />

Introduction:<br />

1. Using a think-pair-share, ask students to discuss the questions What are the five basic human<br />

needs? and How do you meet each need? Students share their answers with the class and then<br />

re-read the sentences from the A3 poster of human needs created during Lesson 2, such as<br />

‘Humans need air, food, water, sleep and protection’.<br />

Development:<br />

2. As a class, ask students: What do animals need to survive? Do they have different needs to humans?<br />

Write students’ suggestions on the whiteboard. QP<br />

3. Individually or in small groups, give each student a copy of the pre-cut and shuffled cards from<br />

page 14. Students choose a pet shelter card and guess which pet they think it belongs to. Students<br />

then see if they can match the food and the water source to the pet they think lives in that shelter.<br />

For example, if a student chooses the aviary, they may think the animal is a bird. They then choose<br />

the birdseed and the water bowl that a bird would use. Students repeat the activity until all cards<br />

have been used. PC<br />

4. Students share the five animals they think each of these needs belong to. Who is <strong>res</strong>ponsible for<br />

making sure these pets get their needs? Who is <strong>res</strong>ponsible for making sure the animals on a farm<br />

or in a zoo have their needs met? How do wild animals meet their needs? PA<br />

5. Watch the online video Animal needs at to see how different animals<br />

meet their needs. PA<br />

6. Provide each student with a copy of page 15 to write and draw about a familiar wild animal of their<br />

choice. Students need to draw their wild animal sleeping and its shelter, food and water. Explain<br />

that air is all around us and is hard to draw. For this reason, identify a symbol such as blue wavy<br />

lines to rep<strong>res</strong>ent wind. Note: A selection of nonfiction books about wild animals may be provided<br />

to ensure information is correct. QP PA<br />

Differentiation<br />

• Less capable students should be encouraged to view books or online images of their wild<br />

animal and may have the sentence scribed for them.<br />

• More capable students should be encouraged to choose a less familiar wild animal and <strong>res</strong>earch<br />

information about how it meets its needs.<br />

Reflection:<br />

7. Select some students to share their completed copy of page 15, explaining the needs of their<br />

animal. C<br />

8. As a class, listen to the song 'The needs of an animal' at to<br />

reinforce four of the five basic needs of animals—food, water, air and shelter (protection).<br />

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Lesson 3<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

shelter<br />

shelter<br />

shelter<br />

shelter<br />

food<br />

food<br />

food<br />

food<br />

water<br />

water<br />

water<br />

water<br />

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shelter<br />

food<br />

water<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 3<br />

Wild animals<br />

The wild animal I chose is a .<br />

Draw your wild animal sleeping. Draw its food, water and home.<br />

© R.I.C. Publications<br />

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My animal needs<br />

.<br />

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15


Lesson 4<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What do plants need?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students learn how to take care of plants and provide<br />

for their needs by growing a radish from a seed.<br />

Technology/Engineering/Mathematics links:<br />

• using the ShowMe app to explain how they provided for<br />

the needs of their radish plant<br />

• explaining why particular needs have been grouped<br />

together to identify which living thing the needs are for<br />

Background information<br />

• Plants include trees, f<strong>low</strong>ers, herbs, bushes, grasses,<br />

fruit-bearing plants, vines and ferns.<br />

• All plants have five basic needs that differ slightly<br />

from animals. Plants need air, sunlight, water, soil<br />

and space to grow and reproduce.<br />

• How plants meet their needs:<br />

Air—Plants absorb the carbon dioxide from the air<br />

through their leaves.<br />

Sunlight—Plants absorb sunlight through their<br />

leaves.<br />

Water—Plants absorb water through their roots.<br />

Soil—Plants anchor themselves to the ground and<br />

absorb nutrients from the soil using their roots.<br />

Space—Plants have various seed dispersal<br />

methods for finding a place of their own. Plants<br />

with limited space will compete for nutrients and<br />

the weaker plant will not survive.<br />

• Unlike animals, plants create their own food through<br />

photosynthesis. Plants take carbon dioxide from the<br />

air, the sunlight and the water and convert these<br />

nutrients into glucose, which the plant uses to grow<br />

and produce oxygen, which it emits back into the<br />

environment.<br />

Assessment focus:<br />

• Use the ShowMe app p<strong>res</strong>entation to<br />

assess the student’s understanding of<br />

the needs of plants.<br />

• Use observational notes to monitor the<br />

student’s ability to participate in guided<br />

investigations, including fol<strong>low</strong>ing<br />

instructions, using tools and materials<br />

safely and <strong>res</strong>ourcefully, and engaging<br />

in discussions about the investigation.<br />

Resources<br />

• One copy of page 18 for display<br />

on the interactive whiteboard<br />

• Online song–'The needs of a<br />

plant' at <br />

• One copy of page 19 for display<br />

on the interactive whiteboard<br />

• One large plastic cup for each<br />

student or each group. These will<br />

need small drainage holes in the<br />

bottom<br />

• Three-quarters of a cup of soil<br />

for each student or each group<br />

• Water spray bottles for the class<br />

to share<br />

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• One sunny area to place<br />

the cups<br />

• Two radish seeds for each<br />

student or each group<br />

• One iPad® for each student<br />

• Online video–How a seed grows<br />

at <br />

16 <strong>Science</strong>:<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 4<br />

Lesson plan<br />

Introduction:<br />

1. Display the T-chart on page 18. Students look at the needs in the yes column and compare them<br />

to the needs in the no column, before deciding which living thing has the needs shown in the yes<br />

column. Students name the five needs of plants, including water, soil, light, space and air. Q P<br />

2. As a class, listen to the song 'The needs of a plant' at to reinforce<br />

the five basic needs of plants.<br />

Development:<br />

3. Individually or in small groups, students conduct an experiment to grow radishes. Fol<strong>low</strong> the simple<br />

step-by-step instructions on page 19 to conduct the experiment. Questions have been provided on<br />

page 19 to guide the investigation. Note: Remind students to write their name on their plastic cup<br />

so they can remember which plant is theirs. Students will also need to provide ongoing care to their<br />

radish every day to ensure its needs are met. This should be conducted with little guidance so that<br />

students have to think of the plant's needs. PC<br />

4. After the radish seeds have been planted and placed in a sunny position, students use the ShowMe<br />

app on an iPad® to create a video. Students take a photograph of their planted radish seeds using<br />

the app and draw the five needs of a plant around the outside of the photograph. Students can<br />

then create a voiceover to describe how they provided for their plant’s needs.<br />

Note: If <strong>res</strong>ources are limited, students can draw a picture of their planted radish seeds and write a<br />

sentence about the needs of a plant. PA C<br />

Differentiation<br />

• Less capable students may create a short video using the camera on the iPad® if they are<br />

unfamiliar with the ShowMe app. Students may also be given prompts to encourage them to<br />

think of the plants' needs. For example, ‘We breathe this into our lungs’ or 'Seeds are buried in<br />

this’.<br />

• More capable students should be encouraged to label each need as well as drawing the<br />

images. Students may also be encouraged to find out what a radish is.<br />

Reflection:<br />

5. Using a think-pair-share, students discuss the questions How do you think your seed will grow?<br />

What will happen first, second, third ...? QP<br />

6. Watch the online video How a seed grows at . PA<br />

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Lesson 4<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Yes<br />

Concept attainment<br />

No<br />

The needs in the Yes column help which of these living things<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 4<br />

Grow a radish!<br />

Materials<br />

• 1 large plastic cup with drainage holes<br />

• 3 4 cup of soil<br />

• 2 radish seeds<br />

• Access to a water sprayer<br />

• Access to a sunny position<br />

Procedure<br />

1. Get the materials.<br />

2. Place soil in the cup.<br />

3. Put the seeds on top<br />

of the soil.<br />

4. Push the seeds into the<br />

soil using your finger.<br />

Stop when you can't<br />

see your fingernail.<br />

5. Cover the seed with soil.<br />

6. Place the cup in a<br />

sunny position.<br />

7. Spray the soil with water<br />

until it is damp but not wet.<br />

8. Check your plant's<br />

needs daily.<br />

Why do you think<br />

plants need soil?<br />

Where do you think<br />

we should position<br />

our plants?<br />

How often do you<br />

think we should<br />

water our plants?<br />

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Which part of the<br />

plant do you think<br />

will appear above<br />

the soil first?<br />

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Lesson 5<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What happens if plant’s needs are not met?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students make observations about the growth of their<br />

radish and investigate who is <strong>res</strong>ponsible for taking care of<br />

plants.<br />

Technology/Engineering/Mathematics links:<br />

• using mathematical language to compare the growth of<br />

radishes and to instruct adding more or less water to the<br />

plant in the interactive activity<br />

• participating in an interactive activity online<br />

Background information<br />

• Plants include trees, f<strong>low</strong>ers, herbs, bushes, grasses,<br />

fruit-bearing plants, vines and ferns.<br />

• All plants have five basic needs that differ slightly from<br />

animals. Plants need air, sunlight, water, soil and space<br />

to grow and reproduce.<br />

• Unlike animals, plants create their own food through<br />

photosynthesis. Plants take carbon dioxide from the air,<br />

the sunlight and the water and convert these nutrients<br />

into glucose, which the plant uses to grow and produce<br />

oxygen, which it emits back into the environment.<br />

• When a plant’s needs are not met, it becomes sick just<br />

like an animal. Its physical appearance changes. Its<br />

leaves may wilt, turn yel<strong>low</strong> or shed, or it may develop<br />

spots of rot.<br />

• Different plants require different amounts of air, water,<br />

sunlight, soil and space. This is because plants have<br />

adapted to grow in different conditions. Some plants<br />

can survive without soil at all, such as air plants, and<br />

some share the same space, such as vines around a tree<br />

in a rainfo<strong>res</strong>t. It is important when choosing plants to<br />

check their individual needs.<br />

Assessment focus:<br />

• Use the student’s drawing and<br />

their two sentences to assess their<br />

observation and recording skills.<br />

Resources<br />

• Access to the radishes<br />

planted in Lesson 4<br />

• Blank piece of paper for<br />

each student<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 5<br />

Lesson plan<br />

Introduction:<br />

1. As a class, revise the radish growing experiment from Lesson 4. What plant did we grow? What are<br />

the five basic needs of plants? How did we make sure the plant’s needs were met? C<br />

Development:<br />

2. Select the radish that grew the most and the radish that grew the least. As a class, model a sentence<br />

to compare the two radishes. For example, Student A’s radish is taller than Student B’s radish. Write<br />

the words 'taller', 'shorter', 'bigger' and 'smaller' on the whiteboard.<br />

3. On a piece of paper, students record their observations by drawing an image of their radish plant.<br />

Students then write two sentences to compare the size of their radish growth to other students.<br />

For example, 'My radish was taller than ...' and 'My radish was shorter than ...' Note: These sentence<br />

starters may be written on the whiteboard for students to complete if required. PC PA<br />

Differentiation<br />

• Less capable students may orally compare the size of their radish to that of other students and<br />

have an adult complete the sentences.<br />

• More capable students should be encouraged to write a sentence about whether they think<br />

their radish had its needs met and why.<br />

4. In pairs, students tell their partner if they think their radish had its needs met or not, giving<br />

reference to the size of the plant. For example, I think my plant did have its needs met as it<br />

grew tall and had leaves, or I think my plant did not have its needs met because it only grew<br />

a little. P A<br />

5. Using a think-pair-share, students answer the questions What happens to plants that don’t have<br />

their needs met? Do they get sick? Q P<br />

Reflection:<br />

6. As a class, discuss who is <strong>res</strong>ponsible for taking care of plants in different places. Who was<br />

<strong>res</strong>ponsible for taking care of your radish? Who is <strong>res</strong>ponsible for taking care of the plants in the<br />

garden at home, at school or in the bushland? Q P<br />

7. What needs do all of the plants in the garden at home, at school and in the bushland have and what<br />

happens if their needs are not met? PA C<br />

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Lesson 6<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What happens if humans’ and animals' needs are not met?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting Q P<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students discover how they can take care of their needs<br />

and the needs of pets at home.<br />

Technology/Engineering/Mathematics links:<br />

• participating in an interactive online activity<br />

Background information<br />

• All animals, including humans, have five basic<br />

needs: air, food, water, sleep and protection from<br />

environmental conditions. Wild animals also require<br />

protection from predators and human impacts.<br />

• Domesticated animals such as pets, farm animals and<br />

zoo animals, have some or all of their needs provided<br />

for by humans. Wild animals meet their needs by<br />

themselves.<br />

• When a human’s or an animal’s needs are not met,<br />

their physical appearance and behaviours may change.<br />

Being tired, hungry, thirsty or breathless are the first<br />

signs that a human’s or an animal’s needs are not being<br />

met. This is a signal to the human or animal that it<br />

needs assistance.<br />

• In the wild, animals that don’t have their needs met<br />

may not survive, unless assisted by humans. With the<br />

introduction of community services, humans, pets and<br />

some wild animals may be rehabilitated by doctors,<br />

nurses, veterinarians, rangers and other experts.<br />

• If <strong>res</strong>ources al<strong>low</strong>, establish a school/class vegetable<br />

garden or introduce a class pet to encourage students<br />

to care for their needs on a regular basis and connect<br />

to real-life situations.<br />

Assessment focus:<br />

• Use page 24 and the class Y-chart<br />

as a formative assessment of the<br />

student's understanding of the<br />

different needs of living things,<br />

including humans, plants and other<br />

animals.<br />

Resources<br />

• Online images of dying plants<br />

• One copy of page 24 for<br />

each student<br />

• Online interactive activity–<br />

Happy cats at <br />

• Online video–What do pets<br />

need? at <br />

• One copy of page 25 to be<br />

displayed on the interactive<br />

whiteboard<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 6<br />

Lesson plan<br />

Introduction:<br />

1. Conduct an image search of dying plants and display them using the interactive whiteboard.<br />

What has happened to these plants? Did they have their needs met? How can you tell? What did<br />

these plants need to survive?<br />

Development:<br />

2. Using a think-pair-share, students answer the questions What do humans and animals need to<br />

survive? and What happens if humans and animals don't have their needs met? Q P<br />

3. Using page 24, students reflect on their basic needs to complete the sentences. For example, if I was<br />

thirsty, I would drink water. Students then draw an image of them meeting each need. PC PA<br />

Differentiation<br />

• Less capable students can complete the sentences orally and have an adult scribe their<br />

sentence for them.<br />

• More capable students should be encouraged to write and complete the sentences If I was<br />

breathless, I would ... and If I had no protection, I would ...<br />

4. In pairs, students share their sentences written on page 24. What basic human needs were not<br />

included on the page? What might happen if humans do not have access to shelter or air? PA Q P<br />

5. Display the interactive game 'Happy cats' at . Read the statements<br />

aloud with students and select individuals to choose the answer. Why do you think a fishing rod<br />

or toy is something that a cat needs? Do you think this is correct? Who is <strong>res</strong>ponsible for providing<br />

these needs to pets? P C P A<br />

6. Watch the online video What do pets need? at .<br />

Students think about a pet that they would like to have and, using a think-pair-share, discuss<br />

how they would take care of their pet's needs. P A C<br />

Reflection:<br />

7. Display the Y-chart on page 25 and have students brainstorm the needs of each living thing.<br />

Draw and/or write each need in the relevant place. C<br />

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Lesson 6<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Your basic needs!<br />

If I am hungry, I need ______________________.<br />

If I am thirsty, I need ______________________.<br />

If I am tired, I need ______________________.<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Lesson 6<br />

Plants<br />

What do we need?<br />

Humans<br />

Animals<br />

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Assessment<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Teacher notes<br />

<strong>Science</strong> knowledge<br />

Living things have basic needs, including food and water (ACSSU002)<br />

Indicators<br />

• Identifies humans, animals and plants.<br />

• Identifies the basic needs of a human, including air, food, water, sleep and protection.<br />

• Identifies the basic needs of a plant, including air, sunlight, water, soil and space.<br />

• Identifies the basic needs of an animal, including air, food, water, sleep and protection.<br />

Differentiation<br />

• Easier option—Page 27 requi<strong>res</strong> students to draw a human, an animal and a plant of their<br />

choosing and draw or write the basic needs for each.<br />

• Harder option—Page 28 requi<strong>res</strong> students to read and think about real-life contexts. Students<br />

then identify the needs of the humans, animals or plants and draw or write them in the correct<br />

place.<br />

Answers<br />

Page 27 and Page 28<br />

1. Teacher check<br />

Answers should include air, food, water, sleep and protection.<br />

Answers may also include love, warmth, shelter or clothing.<br />

2. Teacher check<br />

Answers should include air, food, water, sleep and protection.<br />

3. Teacher check<br />

Answers should include air, sunlight, water, soil and space.<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Assessment<br />

The needs of living things<br />

Draw the living thing and its needs.<br />

1. Humans My basic needs are ...<br />

2. Animals My basic needs are ...<br />

3. Plants My basic needs are ...<br />

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Assessment<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Caring for living things<br />

My family and I are going on a camping trip this weekend.<br />

What do we need to take to make sure all our needs are met?<br />

1. My family is getting a new pet. I want to make a list of the<br />

things it needs so I know how to take care of it every day.<br />

What will my pet need?<br />

2. My family wants to make new garden beds. I get to take care<br />

of all the plants. I’ve never cared for plants before.<br />

What do plants need?<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

<strong>STEM</strong> project<br />

<strong>STEM</strong> project overview<br />

Make a home for a parrot:<br />

Students work in pairs to design and create a home for a parrot out of recycled and natural<br />

materials. The home must be able to hang in a tree and must meet the parrot’s needs. Students<br />

then create a video of their bird house, describing the needs of the parrot and how the featu<strong>res</strong><br />

of the home help to cater for these needs.<br />

Concepts overview:<br />

<strong>Science</strong><br />

• Apply knowledge of living things to create a home for a bird that caters for its basic needs.<br />

Technology/Engineering<br />

• Apply the design process to plan, create and evaluate a home for a bird that caters for its basic<br />

needs.<br />

• Select appropriate materials and apply safety procedu<strong>res</strong> while creating.<br />

• Create a digital video of the completed bird house, explaining the inclusion of each feature<br />

and how those featu<strong>res</strong> cater for the bird’s needs.<br />

Mathematics<br />

• Use indirect measurement to ensure the home will be big enough for a parrot.<br />

Alternative project ideas:<br />

• As a class, grow a class vegetable garden, such as a vertical garden. Small groups can be<br />

allocated a garden bed each. Students decide how they will look after their garden bed to<br />

provide for the plants’ needs. They take digital photographs of their garden and print them,<br />

or upload them to to create a gardening book called<br />

Caring for plants in the garden.<br />

• In small groups, students create a worm farm in a jar. Students <strong>res</strong>earch worms to find out<br />

their basic needs. Students ensure they collect the materials required to cater for its needs<br />

and construct their worm farm in a glass jar. For full instructions, go to .<br />

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<strong>STEM</strong> project<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

<strong>STEM</strong> curriculum links<br />

SCIENCE CURRICULUM<br />

<strong>Science</strong> Understanding<br />

• Living things have basic needs, including food and water (ACSSU002)<br />

<strong>Science</strong> as a Human Endeavour<br />

• <strong>Science</strong> involves observing, asking questions about, and describing changes in, objects and events (ACSHE013)<br />

<strong>Science</strong> Inquiry Skills<br />

Questioning and predicting<br />

• Pose and <strong>res</strong>pond to questions about familiar objects and events (ACSIS014)<br />

Planning and conducting<br />

• Participate in guided investigations and make observations using the senses (ACSIS011)<br />

Processing and analysing data and information<br />

• Engage in discussions about observations and rep<strong>res</strong>ent ideas (ACSIS233)<br />

Communicating<br />

• Share observations and ideas (ACSIS012)<br />

TECHNOLOGIES CURRICULUM<br />

Design and Technologies Knowledge and Understanding<br />

• Identify how people design and produce familiar products, services and environments and consider sustainability to<br />

meet personal and local community needs (ACTDEK001)<br />

Design and Technologies Processes and Production Skills<br />

• Generate, develop and record design ideas through describing, drawing and modelling (ACTDEP006)<br />

• Use materials, components, tools, equipment and techniques to safely make designed solutions (ACTDEP007)<br />

• Use personal preferences to evaluate the success of design ideas, processes and solutions including their care for<br />

environment (ACTDEP008)<br />

• Sequence steps for making designed solutions and working collaboratively (ACTDEP009)<br />

Digital Technologies Knowledge and Understanding<br />

• Recognise and explore digital systems (hardware and software components) for a purpose (ACTDIK001)<br />

Measurement and Geometry<br />

MATHEMATICS CURRICULUM<br />

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• Use direct and indirect comparisons to decide which is longer, heavier or holds more, and explain reasoning in<br />

everyday language (ACMMG006)<br />

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Biological Earth and sciences space sciences<br />

LIVING DAILY THINGS AND SEASONAL HAVE NEEDS CHANGE<br />

<strong>STEM</strong> project<br />

Teacher notes<br />

<strong>STEM</strong> project:<br />

Students work in pairs to design and create a home for a parrot out of recycled and natural<br />

materials. The home must be able to hang in a tree and must meet the parrot’s needs. Students<br />

then create a video of their bird house, describing the needs of the parrot and how the featu<strong>res</strong><br />

of the home help to cater for these needs.<br />

Estimated duration: 4 weeks<br />

1. Introduce the project<br />

• Read the problem on page 32 to students.<br />

• Watch the first 27 seconds of the online<br />

video clip from the movie Rio at . This video clip<br />

shows a macaw and its owner getting<br />

ready in the morning in a very unusual<br />

way.<br />

• As a class, ask students to close their<br />

eyes and think about these questions:<br />

Do all birds live the way Blu lives in the<br />

movie clip? What kinds of homes do birds<br />

live in? What do they need in their home<br />

to survive?<br />

• Read the task and the important things to<br />

do on page 32 to students. Show students<br />

the cardboard cut–out of a parrot using<br />

page 34. Students will need to make sure<br />

their bird home will fit a parrot of this size.<br />

Note: Keep the design brief on display on<br />

the interactive whiteboard or print an<br />

A3 copy and put it on display for students<br />

to refer to.<br />

2. Find out information<br />

• Provide time for students to find out<br />

information about birds.<br />

— Place images of different bird homes<br />

on the interactive whiteboard for<br />

students to look at.<br />

— Provide a selection of nonfiction and<br />

fiction texts for students to look at,<br />

ensuring that only factual information is<br />

transferred.<br />

— Talk to people that care for birds<br />

such as zookeepers, pet owners<br />

and rangers to see how they care<br />

for birds.<br />

3. Design, plan and manage <strong>res</strong>ources<br />

• Students plan their bird home and create<br />

a diagram of it, labelling the featu<strong>res</strong> that<br />

cater for the bird’s needs. They should also<br />

draw the needs of the bird around the bird<br />

home to ensure they cater for each one.<br />

• Students collect the materials necessary.<br />

Remind students about <strong>res</strong>ource<br />

management, conserving <strong>res</strong>ources and<br />

ensuring that <strong>res</strong>ources are shared.<br />

4. Create<br />

• Students choose which materials they<br />

will use to make each feature of their bird<br />

home.<br />

• Students create their bird home according<br />

to their diagram.<br />

5. Evaluate and refine<br />

• Students evaluate their designed bird<br />

home to ensure that all the criteria on<br />

page 32 is included.<br />

• Students make any adjustments necessary<br />

to their designed product.<br />

6. Communicate<br />

• Students create a video of the bird<br />

home using an iPad® application or<br />

a digital camera, explaining to Jacob<br />

the things birds need to survive and<br />

how each feature of the home caters<br />

for the bird’s needs.<br />

• Display the bird feeders outside and<br />

have students, in their pairs, take turns to<br />

share the featu<strong>res</strong> of their bird home and<br />

explain how it will help a parrot meet its<br />

needs.<br />

• Students complete the self-assessment<br />

on page 35 to show how well they<br />

participated and cooperated.<br />

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<strong>STEM</strong> project<br />

The problem<br />

Jacob is five years old and wants to own a<br />

pet. Every time his parents take him to the<br />

pet shop, he looks at all the birds in every<br />

cage. He hopes that one day he is al<strong>low</strong>ed to<br />

take one home. His parents always say that Jacob<br />

is too young for a pet and that he doesn't know<br />

how to look after it.<br />

How can Jacob show his parents that he knows<br />

how to care for a bird?<br />

The task<br />

Project brief<br />

• Design and create a home for a wild bird that<br />

Jacob could use to show his parents that he<br />

knows how to take care of birds.<br />

• Create a video of the bird home using<br />

an iPad ® application or a digital camera,<br />

explaining to Jacob the things birds need<br />

to survive and how each feature caters<br />

for the bird’s needs.<br />

Important things you need to do!<br />

• You must work in pairs.<br />

• You must use recycled<br />

and natural materials<br />

found at home<br />

or at school.<br />

• You must cater for the<br />

bird's five basic needs.<br />

WATER<br />

WATER<br />

• Your bird home<br />

must be able to<br />

hang in a tree.<br />

• It must be able to<br />

fit a parrot inside it.<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

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• The video must include<br />

instructions to Jacob<br />

about how to care for<br />

a bird, using the featu<strong>res</strong><br />

of the bird home.<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Project steps<br />

<strong>STEM</strong> project<br />

Find out information<br />

Learn about the needs of birds.<br />

Talk to people that own birds to find out how they care for them.<br />

Read books about pet birds and birds that live in the wild.<br />

Look at pictu<strong>res</strong> of birds and their needs on the internet.<br />

Learn about different homes for birds.<br />

Look at pictu<strong>res</strong> of bird cages for pets.<br />

Look at pictu<strong>res</strong> of bird houses made from recycled materials.<br />

Look at pictu<strong>res</strong> of bird homes in the wild.<br />

Design, plan and collect <strong>res</strong>ources<br />

Plan your bird home.<br />

Draw a picture of your bird home.<br />

Draw/write the needs of your bird and how it will get these.<br />

Collect the materials you need.<br />

Create<br />

Create your bird home.<br />

Choose which materials to use for each part of the home.<br />

Make the bird home.<br />

Check and make changes<br />

Check that it is correct and you are happy with it.<br />

Check that all the important things on page 32 were done.<br />

Check that both partners are happy with it.<br />

Communicate<br />

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Use an iPad ® to record a video.<br />

Talk about how the parts of the home meet the bird’s needs.<br />

Tell Jacob how to care for the birds.<br />

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<strong>STEM</strong> project<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Parrot cut-out<br />

Create a parrot template for bird house sizing. Attach an A4 copy of this<br />

parrot to thick cardboard and cut out. Make a few templates for students to<br />

share or make one for each pair.<br />

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Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

<strong>STEM</strong> project<br />

Self – assessment<br />

Student name:<br />

Date:<br />

<strong>STEM</strong> project: Make a home for a parrot<br />

I listened to my partner.<br />

I gave ideas.<br />

I helped to find out information.<br />

I helped collect materials.<br />

I helped make the plan.<br />

I helped make the design.<br />

The project was: easy hard<br />

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I liked ...<br />

.<br />

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<strong>STEM</strong> project<br />

Group assessment rubric<br />

Biological sciences<br />

LIVING THINGS HAVE NEEDS<br />

Group members:<br />

CRITERIA<br />

Project task:<br />

Create a home for a bird that caters for its basic needs. Record a video of the bird home<br />

explaining how it meets the bird’s needs.<br />

<strong>Science</strong> knowledge<br />

Creates a home for a wild bird that caters for its basic needs—food, water, air, sleep<br />

and protection.<br />

<strong>Science</strong> skills<br />

Creates a labelled diagram of their bird home, including the featu<strong>res</strong> and the basic needs<br />

of a bird.<br />

Plans, conducts and evaluates an investigation to find out what things a bird needs<br />

to survive and how they obtain these.<br />

Communicates science understanding correctly, clearly and concisely using<br />

a digital video.<br />

Technology/Engineering skills<br />

Plans and designs a bird home that caters for its basic needs.<br />

Investigates and uses a range of materials to rep<strong>res</strong>ent featu<strong>res</strong> of the bird home.<br />

Creates a bird home using materials and tools safely.<br />

Evaluates designed products to ensure they meet the criteria and makes any necessary<br />

changes.<br />

Plans and creates a digital video, using an iPad ® or digital camera, to explain<br />

the needs of a bird and how to care for a bird.<br />

Mathematics<br />

Uses informal measurement to ensure the bird home will fit a parrot inside.<br />

Group skills<br />

All group members contributed fairly and appropriately.<br />

All group members collaborated and communicated effectively.<br />

Group members were able to <strong>res</strong>olve conflicts independently.<br />

1 = Be<strong>low</strong> expectation<br />

2 = Meeting expectation<br />

3 = Above expectation<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

hard<br />

objects<br />

sort<br />

colour<br />

size<br />

shape<br />

material<br />

wood<br />

glass<br />

Keywords<br />

plastic<br />

metal<br />

paper<br />

rubber<br />

fabric<br />

ceramic<br />

properties<br />

strong/weak<br />

hard/soft<br />

shiny/dull<br />

rough/smooth<br />

flexible/rigid<br />

coloured/see-through<br />

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smell/no smell<br />

absorbent/waterproof<br />

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Unit overview<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Objects are made of materials that have observable properties (ACSSU003)<br />

Lesson 1<br />

What are objects<br />

made from?<br />

Lesson 2<br />

What do objects<br />

that are made from<br />

wood, glass, metal<br />

or rubber look, smell<br />

and feel like?<br />

Lesson 3<br />

What do objects<br />

that are made from<br />

paper, cardboard or<br />

plastic look, smell<br />

and feel like?<br />

Lesson 4<br />

What do objects<br />

that are made from<br />

different fabrics look,<br />

smell and feel like?<br />

Lesson 5<br />

What types of<br />

materials are used to<br />

make houses?<br />

Lesson 6<br />

What types of<br />

materials are used to<br />

make clothing?<br />

Summative<br />

assessment<br />

<strong>STEM</strong> project<br />

Make a sailboat that<br />

can float<br />

To determine students' prior knowledge, engage them in various<br />

guided sorting activities to group a set of objects by colour, then<br />

by size, then by the materials they think the objects are made from.<br />

Students reflect on their predictions by comparing their groups to<br />

eight types of materials—wood, glass, plastic, metal, paper, rubber,<br />

fabric and ceramic.<br />

Students sort given objects into four groups to predict which material<br />

they are made from—wood, glass, metal or rubber. Students are then<br />

introduced to some basic observable properties that materials have.<br />

Students use their senses to describe objects made from wood, glass,<br />

metal or rubber before engaging with an interactive game to reflect on<br />

their learning.<br />

Students sort given objects into three groups to predict which material<br />

they are made from—paper, cardboard or plastic. Students revise some<br />

of the basic observable properties that materials have and use their<br />

senses to describe objects made from paper, cardboard or plastic.<br />

Students reflect on their learning by playing a guessing game about<br />

objects and the materials they are made from.<br />

Students predict which type of fabric is used to make a scarf, a<br />

pil<strong>low</strong>case, a felt board and a tie. Students then look at a ball of wool, a<br />

thick silk ribbon, a felt square and a square of cotton fabric to describe<br />

the properties of each type of fabric. Students then compare the types<br />

of fabric to determine common properties of objects made from fabric.<br />

Engage students in a school walk to identify the materials used to<br />

make different parts of buildings. Students scan QR codes using iPads ®<br />

to predict the types of materials used to build houses around the<br />

world. They then watch a video explaining the different types of houses<br />

around the world and the materials they are made from. Students<br />

compare their predictions to the information provided in the video.<br />

Students engage with an interactive activity to choose clothing<br />

appropriate for different weather conditions—hot, cold or wet. Students<br />

investigate the properties of cotton, wool, leather, silk and plastic<br />

and how each type of material is used to make clothing for different<br />

purposes.<br />

Students explain their knowledge of the observable properties of<br />

different materials. They list which types of materials are used for<br />

building homes and making clothes.<br />

Students create a sailboat that can float for one minute. They must<br />

ensure they use a different material for each part—the hull, the deck,<br />

the mast, the sails and the rigging. Students then test their boat and<br />

explain why they chose the type of material for each part based on the<br />

material's properties.<br />

Pages<br />

40–43<br />

44–47<br />

48–49<br />

50–53<br />

54–57<br />

58–59<br />

60–62<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Unit overview<br />

Curriculum scope and sequence<br />

SCIENCE UNDERSTANDING<br />

Lesson<br />

1 2 3 4 5 6 Assessment<br />

Objects are made of materials that have observable properties (ACSSU003) 3 3 3 3 3 3 3 3<br />

SCIENCE AS A HUMAN ENDEAVOUR<br />

<strong>Science</strong> involves observing, asking questions about, and describing changes<br />

in, objects and events (ACSHE013)<br />

SCIENCE INQUIRY SKILLS<br />

Questioning and predicting<br />

<strong>STEM</strong><br />

project<br />

3 3 3 3 3 3 3<br />

Pose and <strong>res</strong>pond to questions about familiar objects and events (ACSIS014)<br />

3 3 3 3 3 3 3<br />

Planning and conducting<br />

Participate in guided investigations and make observations using<br />

the senses (ACSIS011)<br />

Processing and analysing data and information<br />

3 3 3 3 3 3 3<br />

Engage in discussions about observations and rep<strong>res</strong>ent ideas<br />

(ACSIS233) 3 3 3 3 3 3 3<br />

Communicating<br />

Share observations and ideas (ACSIS012)<br />

3 3 3 3 3 3 3 3<br />

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39


Lesson 1<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What are objects made from?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students use their five senses while observing objects, to<br />

sort objects into groups and to predict the material that<br />

each object is made from.<br />

Technology/Engineering/Mathematics links:<br />

• sorting objects by colour and size<br />

• using mathematical language to compare sizes of objects<br />

Background information<br />

• Objects are made of different materials and can be seen<br />

and felt. Some objects are made from natural materials<br />

and others are man-made.<br />

• Natural materials come from plants, animals and the<br />

ground. Materials that come from plants include wood,<br />

cotton and latex rubber. Materials that come from animals<br />

include wool, silk and leather. Materials that come from the<br />

ground include stone; native metals such as copper, silver<br />

and gold; and composites such as clay, porcelain and<br />

plasticine.<br />

• Man-made materials are manufactured from natural<br />

materials or created synthetically. These include materials<br />

such as glass, plastic, paper, fabric and ceramics. Rubber<br />

can also be synthetically made.<br />

• While students do not need to know the difference<br />

between natural and man-made <strong>res</strong>ources until Year 4,<br />

they may inquire as to where materials come from. This<br />

could be explained as: some materials come from plants,<br />

animals and from the ground, and others are made by<br />

humans.<br />

Assessment focus:<br />

• Use observations or a checklist<br />

to monitor the student's ability<br />

to sort objects by colour, size<br />

and type of material they are<br />

made from.<br />

• Use the photographs of each<br />

group as work samples to<br />

demonstrate the student's<br />

ability to group objects by<br />

colour, size and material. These<br />

may also be used to create<br />

A3 posters with headings We<br />

can sort by colour, We can sort<br />

by size, and We can sort by<br />

material.<br />

Resources<br />

• One digital camera for<br />

teacher use<br />

• A selection of three or four<br />

objects made from each<br />

type of material listed on<br />

page 42. Each group will<br />

require the same objects to<br />

sort and the objects must<br />

be various sizes and colours<br />

• One copy of the materials<br />

buckets on page 43 for<br />

each group. These should<br />

be cut out and laminated<br />

prior to the lesson for use in<br />

other lessons<br />

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F


Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 1<br />

Lesson plan<br />

Introduction:<br />

1. Play a sorting game with the class. Have all students sit on the mat and silently select a category,<br />

such as hair colour. Allocate a position in the classroom for each hair colour without the students<br />

knowing. Silently, tap individual students on the shoulder and point to the allocated position or say<br />

a student's name in that group to instruct them where to move to. When all students have been<br />

allocated a position, they quietly discuss why they think they have been placed together. QP PC<br />

PA<br />

2. Discuss that humans often sort objects into groups that have something in common. How else<br />

could we sort everyone into groups? Encourage students to think about size, clothing worn, gender<br />

and eye colour. QP<br />

Development:<br />

3. Divide the class into groups of between four and six students, and in the middle of each group<br />

place an assortment of pre-prepared objects from each type of material listed on page 42.<br />

Each group's objects should be the same and should contain a variety of different-sized and<br />

different-coloured objects. Ask students Can you sort these objects by colour? How many groups<br />

did you make? How would you label each group? Check each group's answers as they work and<br />

clarify any objects that are in the wrong group. Take a digital photograph of each group with their<br />

sorted objects. QP PC PA<br />

4. Using the same objects, complete the same activity but ask students to sort objects according to<br />

size. Repeat the questions and take a photograph of each group with their sorted objects. Discuss<br />

that sometimes we group objects by their appearance, such as their colour, size or shape, but we<br />

can also use our other senses to group items in different ways. QP PC PA<br />

5. Using the same objects, ask students to use their five senses to sort the objects into the materials<br />

they think each object is made from. Ask students How many groups did you make? How would<br />

you label each group? Depending on students' answers, ask them to try to sort the items into eight<br />

different groups of materials. Take a digital photograph of each group with their sorted objects.<br />

QP PC PA<br />

6. Give each group a pre-prepared set of the eight buckets on page 43. Assist students to read the<br />

words on each label, looking for beginning, middle and end sounds. This will help them to read<br />

the words independently during the activity. Ask students Can you match these buckets to your<br />

groups? Do any objects need to change groups? Students move any incorrect objects to where<br />

they think they should be placed. Take another digital photograph of each group with their sorted<br />

objects. PC PA<br />

Differentiation:<br />

• Less capable students may be told the labels to each sorting activity and asked to sort the<br />

objects into those groups. For example, can you sort these objects into small, medium and<br />

large objects? Can you group all the metal objects together?<br />

• More capable students should be encouraged to name, write or draw other objects that are<br />

made from each material.<br />

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7. As a class, ask one group to share the objects they had in one group of materials. Take turns to<br />

al<strong>low</strong> all groups to share. Discuss the correct answers and encourage students to check their<br />

groupings and make any adjustments necessary. PA C<br />

Reflection:<br />

8. Using a think-pair-share, think of a material and ask students to name an object that is made from<br />

that material. For example, can you think of an object that is made from metal? Each pair must<br />

choose two different objects to share with the class. PA C<br />

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Lesson 1<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Wood<br />

Glass<br />

Plastic<br />

Metal<br />

A natural material that<br />

comes from trees.<br />

Objects made from<br />

wood include:<br />

• craft sticks<br />

• matchsticks<br />

• wooden blocks/toys<br />

• wooden rulers<br />

• wooden skewers<br />

Paper<br />

A man-made material<br />

that comes from wood.<br />

Objects that are made<br />

from paper include:<br />

• envelopes<br />

• paper doilies<br />

• patty pans<br />

• notepads<br />

• newspapers<br />

A man-made material<br />

made from minerals.<br />

Objects made from<br />

glass include:<br />

• drinking glasses<br />

• marbles<br />

• glass jars<br />

• glass beakers<br />

• glass vases or jugs<br />

Rubber<br />

A material that can be<br />

found naturally in some<br />

trees or man-made.<br />

Objects that are made<br />

from rubber include:<br />

• rubber erasers<br />

• latex gloves/balloons<br />

• bouncy balls<br />

• rubber bands<br />

• rubber ducks<br />

A man-made material<br />

made from minerals.<br />

Objects made from<br />

plastic include:<br />

• plastic buttons<br />

• plastic toys<br />

• Unifix® blocks or<br />

similar<br />

• plastic straws<br />

• plastic plates or<br />

cutlery<br />

Fabric<br />

A cloth made by<br />

weaving, knitting or<br />

felting natural fib<strong>res</strong>,<br />

such as cotton, together.<br />

Objects that are made<br />

from fabric include:<br />

• silk ribbons or ties<br />

• felt squa<strong>res</strong><br />

• hankerchiefs or similar<br />

cotton fabrics<br />

• pompoms<br />

A material that can be<br />

extracted naturally from<br />

the ground or manmade.<br />

Objects made from<br />

metal include:<br />

• metal sharpeners<br />

• aluminium foil<br />

• stainless steel cutlery<br />

• paperclips<br />

• gold coins<br />

Ceramic<br />

A man-made material<br />

made from clay and<br />

other natural materials.<br />

Objects made from<br />

ceramics include:<br />

• ceramic ornaments<br />

• china mugs<br />

• ceramic bowls or<br />

plates<br />

• ceramic vases or jugs<br />

• terracotta pots<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 1<br />

wood<br />

glass plastic<br />

metal<br />

rubber<br />

fabric<br />

ceramic<br />

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paper<br />

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43


Lesson 2<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What do objects that are made from wood, glass, metal or<br />

rubber look, smell and feel like?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students use their five senses while observing objects to<br />

investigate the basic properties of objects made from wood,<br />

glass, metal or rubber.<br />

Technology/Engineering/Mathematics links:<br />

• sorting objects by the material they are made from<br />

• using mathematical language to describe thickness, weight<br />

and size of objects<br />

• exploring properties of materials<br />

• participating in an online interactive activity sorting objects by<br />

the material they are made from<br />

Background information<br />

• All objects are made from materials that have observable<br />

properties. These properties make the material useful for<br />

different purposes.<br />

• The properties of a material describe its size, shape,<br />

colour, texture, malleability, flexibility, strength, odour,<br />

sound, density, absorbancy or transparency. See pages 46<br />

and 47 for more detail.<br />

• Materials may have opposing properties depending on<br />

the object. For example, a steel bar is strong and rigid<br />

but aluminium foil is weak and flexible.<br />

Wood<br />

• strong<br />

• hard<br />

• dull<br />

• rough/<br />

smooth<br />

Metal<br />

• strong/<br />

weak<br />

• hard<br />

• dull/shiny<br />

• rough/<br />

smooth<br />

• flexible/<br />

rigid<br />

• coloured<br />

• natural<br />

smell<br />

• flexible/<br />

rigid<br />

• coloured<br />

• no smell<br />

Glass<br />

• strong/<br />

weak<br />

• hard/soft<br />

• shiny<br />

Rubber<br />

• strong/<br />

weak<br />

• hard/soft<br />

• dull<br />

• rough/<br />

smooth<br />

• smooth<br />

• rigid<br />

• seethrough<br />

• no smell<br />

• flexible/<br />

rigid<br />

• coloured<br />

• natural<br />

smell<br />

Assessment focus:<br />

• Monitor the student's<br />

participation and observation<br />

skills while they explore<br />

the properties of materials,<br />

including the student's use of<br />

descriptive words and use of<br />

sight, smell and feel.<br />

Resources<br />

• One digital camera for<br />

teacher use<br />

• A selection of five different<br />

objects made from each<br />

material—wood, glass, metal<br />

or rubber. A list of easily<br />

accessible objects for each<br />

material can be found on<br />

page 42. These need to<br />

be placed in a cardboard<br />

box so students cannot see<br />

them<br />

• Four hula hoops<br />

• An enlarged set of the<br />

property cards on<br />

pages 46 and 47. These<br />

should be coloured, cut<br />

out and laminated prior to<br />

the lesson for use in other<br />

lessons<br />

• Five sets of the property<br />

cards on pages 46 and 47.<br />

These should be coloured,<br />

cut out and laminated prior<br />

to the lesson for use in<br />

other lessons<br />

• Online interactive activity—<br />

'How to identify materials'<br />

at <br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 2<br />

Lesson plan<br />

Before the lesson, collect five objects each that are made solely from wood, glass, metal or rubber.<br />

Note: Suggestions of easily accessible objects that exhibit a range of properties have been provided<br />

on page 42. Place the objects in a cardboard box and place the box and four hula hoops in the centre<br />

of the mat. Label each hoop with a different material—wood, glass, metal or rubber.<br />

Introduction:<br />

1. As a class, sit in a circle around the cardboard box and the hula hoops. Ask two students at a time<br />

to quickly select an object from the box and choose which material they think it is made from.<br />

Students should be encouraged to describe their thinking, such as I think this object is made from<br />

metal because it is hard and shiny. Encourage other students to, without saying anything, put their<br />

hand up if they disagree with the material choice. The student who is sorting the object must then<br />

double-check their choice and sit down when finished. Repeat the activity until all students have<br />

had a turn. Note: Digital photographs may be taken to use as evidence of students sorting objects<br />

by the material it is made from. QP PA<br />

Development:<br />

2. While students are sitting on the mat, display an enlarged set of the property cards on<br />

pages 46 and 47. Encourage students to sound out each word. Describe the meaning of the word<br />

to students with reference to the image so that students can read the words independently during<br />

the activity. PA<br />

3. Divide the class into five groups and give each group an object made of wood and a set of<br />

property cards from pages 46 and 47. Students work as a group to explore the properties of the<br />

object they have. PC<br />

Differentiation<br />

• Less capable students may be grouped together and given an easy-to-describe object from<br />

each material or be given limited properties to test for each object. An adult helper can assist<br />

students to read the property cards and ask students questions, such as Can you bend it?<br />

• More capable students may be grouped together and encouraged to create a poster of the<br />

properties for each material, copying the words from each property card that applies.<br />

4. After a few minutes, students share the properties of their group's object with the other groups. As<br />

students suggest the properties of their object, add their descriptive words to an A3 piece of paper<br />

to create a poster of the properties of each material. PA<br />

5. Select a student to return their object to the hula hoop on the mat and repeat steps 3 and 4 for the<br />

remaining materials. PC PA<br />

Reflection:<br />

6. Display the game at the bottom of the page, where students need to choose the correct<br />

object based on the material it is made from—wood, fabric, glass, metal, plastic. Ask students<br />

to explain why they think the object is made from that material, with reference to its observable<br />

properties. PA C<br />

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45


Lesson 2<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Basic observable properties of materials – 1<br />

strong or weak (describing the material's ability to withstand force)<br />

hard or soft (describing the feel of the material)<br />

shiny or dull (describing the reflectiveness of the material)<br />

rough or smooth (describing the texture of the material)<br />

flexible or rigid (describing the flexibility of the material)<br />

coloured or see-through (describing the transparency and colour of the material)<br />

smell or no smell (describing if the material has a particular odour)<br />

hard<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 2<br />

Basic observable properties of materials – 2<br />

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47


Lesson 3<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What do objects that are made from paper, cardboard<br />

or plastic look, smell and feel like?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting Q P<br />

• Planning and conducting P C<br />

• Processing and analysing data and information P A<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students use their five senses while observing objects to<br />

investigate the basic properties of objects made from paper,<br />

cardboard or plastic.<br />

Technology/Engineering/Mathematics links:<br />

• sorting objects by the material they are made from<br />

• using mathematical language to describe the thickness,<br />

weight and size of objects<br />

• exploring properties of materials<br />

Background information<br />

• All objects are made from materials that have<br />

observable properties. These properties make the<br />

material useful for different purposes.<br />

• The properties of a material describe its size, shape,<br />

colour, texture, malleability, flexibility, strength, odour,<br />

sound, density, absorbancy or transparency. See<br />

pages 46 and 47 for more detail.<br />

• Materials may have opposing properties depending<br />

on the object. For example, a plastic dice is strong and<br />

rigid but a plastic ruler is weak and flexible.<br />

Paper<br />

• weak<br />

• hard/soft<br />

• dull<br />

• rough/smooth<br />

• flexible<br />

• coloured<br />

• smell/no smell<br />

Cardboard<br />

• strong/weak<br />

• hard<br />

• dull<br />

• rough/smooth<br />

Plastic<br />

• strong/weak<br />

• hard<br />

• shiny/dull<br />

• smooth/rough<br />

• rigid/flexible<br />

• see-through/coloured<br />

• no smell<br />

• flexible/rigid<br />

• coloured<br />

• smell/no smell<br />

Assessment focus:<br />

• Monitor the student’s<br />

participation and observation<br />

skills while they explore<br />

the properties of materials,<br />

including the student’s use of<br />

descriptive words and use of<br />

sight, smell and feel.<br />

Resources<br />

• One digital camera for<br />

teacher use<br />

• Five objects made from<br />

paper—an envelope, a paper<br />

doily, a patty pan, a notepad<br />

and a newspaper<br />

• Five objects made from<br />

cardboard—a cereal box,<br />

a paper towel roll, an egg<br />

carton, a sheet of coloured<br />

card and paper plates<br />

• Five objects made from<br />

plastic—buttons, Unifix ® cubes<br />

or similar plastic manipulatives,<br />

straws, plastic plates or cutlery<br />

and plastic food wrap<br />

• Three hula hoops<br />

• An enlarged set of coloured<br />

and laminated property cards<br />

on pages 46 and 47 (re-use<br />

from Lesson 2)<br />

• Five sets of coloured and<br />

laminated property cards on<br />

pages 46 and 47 (re-use from<br />

Lesson 2)<br />

• 15 pieces of A4 paper<br />

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F


Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 3<br />

Lesson plan<br />

Before the lesson, collect five objects each that are made solely from paper, cardboard or plastic.<br />

Place the objects in a cardboard box and place the box and three hula hoops in the centre of the mat.<br />

Label each hoop with a different material—paper, cardboard or plastic.<br />

Introduction:<br />

1. As a class, sit in a circle around the cardboard box and the hula hoops. Ask two students at a time<br />

to quickly select an object from the box and choose which material they think it is made from.<br />

Students should be encouraged to describe their thinking, such as I think this object is made from<br />

paper because it is white and flexible. Encourage other students to, without saying anything, put<br />

their hand up if they disagree with the material choice. The student who is sorting the object must<br />

then double-check their choice and sit down when finished. Repeat the activity until all students<br />

have had a turn. Note: Digital photographs may be taken to use as evidence of the students sorting<br />

objects by the material it is made from. Q P P A<br />

Development:<br />

2. While students are sitting on the mat, revise the property cards used in Lesson 2. Ask students to<br />

explain what each word means in their own words. Clarify any that the students are unsure of. P A<br />

3. Divide the class into five groups and give each group an object made of paper and a set of property<br />

cards used in Lesson 2. Students work as a group to explore the properties of the object they have.<br />

On an A4 page, students draw their object in the middle and write/copy the properties of their<br />

object around the outside of the image to create a group poster. PC P A<br />

Differentiation<br />

• Less capable students may be grouped together and given an easy-to-describe object from<br />

each material or be given limited properties to test for each object. An adult helper can assist<br />

students to read the property cards and ask students questions, such as Can you bend it?<br />

• More capable students may be grouped together and encouraged to create their own poster of<br />

the properties for each material, copying the words from each property card that applies.<br />

4. After a few minutes, students share the properties of their group's object with the other groups. As<br />

students suggest the properties of their object, add their descriptive words to an A3 piece of paper<br />

to create a poster of the properties of each material. Note: Student-created posters can be kept as<br />

work samples or displayed around the classroom. P A<br />

5. Select a student to return their object to the hula hoop on the mat and repeat steps 3 and 4 for the<br />

remaining materials. P C P A<br />

Reflection:<br />

6. Play a guessing game with the students by thinking of an object made from paper, plastic or<br />

cardboard and, without telling the students what the object is, describe its properties and use.<br />

For example, 'I'm thinking of an object that is made of a material that is often brown, smooth and<br />

rigid. The object is used to pack things into when you move house. My object is ... (a cardboard<br />

box)'. Students need to guess the material that the object is made from. When they guess the type<br />

of material, reveal the object and reinforce its properties or challenge the students to think of the<br />

object. Note: Depending on ability, objects may be limited to those used thoughout the lesson or<br />

extended to include other objects made of paper, cardboard or plastic. PA C<br />

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Lesson 4<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What do objects that are made from different<br />

fabrics look, smell and feel like?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and<br />

information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students use their five senses while observing<br />

objects to investigate the basic properties of<br />

objects made from different materials.<br />

Background information<br />

• All objects are made from materials that have<br />

observable properties. These properties make<br />

the material useful for different purposes.<br />

• The properties of a material describe its size,<br />

shape, colour, texture, malleability, flexibility,<br />

strength, odour, sound, density, absorbancy or<br />

transparency. See pages 46 and 47 for more<br />

detail.<br />

• Materials may have opposing properties<br />

depending on the object. For example, natural<br />

wool may smell like lanolin but treated wool may<br />

have no smell.<br />

Wool<br />

• strong<br />

• soft<br />

• dull<br />

• rough/smooth<br />

• flexible<br />

• coloured<br />

• smell/no smell<br />

Felt<br />

• strong<br />

• soft<br />

• dull<br />

• rough/smooth<br />

• flexible<br />

• coloured<br />

• smell/no smell<br />

Silk<br />

• strong<br />

• soft<br />

• shiny<br />

• smooth<br />

• flexible<br />

• coloured<br />

• smell/no smell<br />

Cotton<br />

• strong<br />

• soft<br />

• shiny<br />

• smooth<br />

• flexible<br />

• coloured<br />

• smell/no smell<br />

Technology/Engineering/Mathematics links:<br />

• sorting objects by the fabric they are<br />

made from<br />

• using mathematical language to describe<br />

the thickness, weight and size of objects<br />

• exploring properties of materials<br />

Assessment focus:<br />

• Use page 52 or 53 to monitor the student's<br />

observation skills while they explore the<br />

properties of fabric, including the student's<br />

use of descriptive words and use of sight,<br />

smell and feel.<br />

Resources<br />

• One digital camera for teacher use<br />

• One woolen scarf or similar woollen<br />

clothing item<br />

• One cotton pil<strong>low</strong>case or similar<br />

cotton bedding item<br />

• One felt board with characters<br />

or similar felt-based toy<br />

• One silk tie or similar silk<br />

clothing item<br />

• One container for each group<br />

containing: a ball of wool/yarn,<br />

a 10-cm length of silk ribbon, a felt<br />

square (10 cm 2 ) and a square of cotton<br />

fabric (10 cm 2 )<br />

• An enlarged set of coloured and<br />

laminated property cards on pages 46<br />

and 47 (re-use from Lesson 2)<br />

• Five sets of coloured and laminated<br />

property cards on pages 46 and 47<br />

(re-use from Lesson 2)<br />

• One copy of page 52 or 53 for each<br />

group, depending on ability<br />

• Online image—Which of these things<br />

are made of fabric? at (optional)<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 4<br />

Lesson plan<br />

Introduction:<br />

1. On a table at the front of the class, display a woollen scarf, a cotton pil<strong>low</strong>case, a felt board with<br />

felt characters and a silk tie. Students suggest what type of material these objects are made from<br />

(fabric). Alternatively, display the image at and ask students to<br />

predict which objects they think are made of fabric and why. QP PA<br />

Development:<br />

2. While students are sitting on the mat, revise the property cards used in Lesson 2. Ask students to<br />

explain what each word means in their own words. Clarify any that the students are unsure of. PA<br />

3. Divide the class into groups of four and give each group a ball of wool/yarn, a piece of thick silk<br />

ribbon (approximately 10 cm), a felt square (approximately 10 cm 2 ) and a square of cotton fabric<br />

(approximately 10 cm 2 ). Students use their senses to describe what each type of fabric looks and<br />

feels like to determine a set of common properties for fabrics. Students use page 52 to record their<br />

observations of each type of fabric in the outer sections and write a set of common properties in<br />

the centre section. Note: Digital photographs may be taken to use as evidence of the students using<br />

their senses to describe the fabric. PC PA<br />

Differentiation:<br />

• Less capable students may use the checklist on page 53 to examine the properties of each type<br />

of material. An adult may also assist the students to scribe the common properties or students<br />

can explain the properties of fabric by creating a video.<br />

• More capable students may be encouraged to <strong>res</strong>earch or predict what objects they think each<br />

type of fabric is used for and record their answers on a blank piece of paper.<br />

4. Ask two groups to pair up and share their observations and their set of common properties<br />

of fabrics. PA<br />

Reflection:<br />

5. Choose students to share their observations and their common properties with the class. Reinforce<br />

the common properties of these four fabrics and the differences between them. For example,<br />

they are all strong, soft, flexible and coloured. Discuss that some fabrics may be rough like felt or<br />

smooth like silk, and that some may have a natural smell. PA C<br />

6. Review the objects displayed during the Introduction. Select one of the objects and ask students<br />

to suggest words to describe its properties. Students can then predict which type of fabric (wool,<br />

silk, felt or cotton) they think it is made from based on its observable featu<strong>res</strong>. Note: If the image<br />

at was used in the introduction, students will have to rely on their<br />

sense of sight to predict the type of material used. QP C<br />

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Lesson 4<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Silk<br />

Wool<br />

Felt<br />

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Cotton<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Properties of fabric<br />

Lesson 4<br />

Wool<br />

Silk<br />

Felt<br />

Cotton<br />

hard<br />

or or or or or or or<br />

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Lesson 5<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What types of materials are used to make houses?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students investigate how different types of materials are<br />

used to make houses in different environments.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including videos and online images<br />

• scanning QR codes using an iPad®<br />

• identifying types of materials used in the construction<br />

of houses<br />

Background information<br />

• Buildings and shelters are made of different materials<br />

depending on the conditions of the environment and<br />

available materials.<br />

• In Australia, the walls of houses are often made of brick,<br />

stone, concrete, plasterboard, wood or metal. The roof of a<br />

house is often made of sheet metal or clay tiles.<br />

• Different houses around the world are built from different<br />

materials. Houses can be made of snow/ice (igloos),<br />

fibreglass (houseboats), stone (caves), fabric (tents), mud/<br />

clay (mud houses), reeds (thatched roofs) and wood (tree<br />

houses and stilt houses). For more information about<br />

houses made from different materials, go to .<br />

• If the QR code links do not work, conduct an image search<br />

of the fol<strong>low</strong>ing houses—’Rainfo<strong>res</strong>t traditional tree house’,<br />

‘Desert tent’, ‘Stilt house’, ‘Traditional hut made from leaves<br />

and branches’ and ‘Traditional mud hut’.<br />

• Alternatively, a comparison image of houses made from<br />

different materials can be found at .<br />

Assessment focus:<br />

• Use page 56 or 57 to monitor<br />

the student's observations and<br />

predictions about the types<br />

of materials used to construct<br />

houses.<br />

• Use the student's <strong>res</strong>ponses<br />

to the Reflection questions<br />

to assess understanding that<br />

houses can be made of different<br />

materials depending on the<br />

environmental conditions and<br />

the availability and accessibility<br />

of materials.<br />

Resources<br />

• Online image—The three<br />

little pigs at <br />

• A class set of iPads® with<br />

QR scanners installed<br />

• One copy of page 56<br />

or 57 for each student,<br />

depending on ability level<br />

• Online video—Houses<br />

around the world at<br />

<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 5<br />

Lesson plan<br />

Introduction:<br />

1. Conduct a school walk and look at the buildings in the school. Using a think-pair-share, students<br />

discuss what materials were used to make the main parts of the building (walls, roof, windows and<br />

door) and why they think those materials were chosen for each part. QP PA<br />

Development:<br />

2. View the image of the houses in the story The three little pigs at .<br />

Ask students to think about which story these houses remind them of and what happened in the<br />

story. Which material was used to build the strongest house? Which materials were used to build the<br />

houses that were b<strong>low</strong>n down by the wolf? Why do you think the pigs chose to use those materials?<br />

Explain to students that different materials are chosen to build different houses based on how<br />

much of the material is available, how easy the material is to get and what the environment that the<br />

house will be built in is like. QP<br />

3. Ask students to think about their house. What material are the walls made from? What material is<br />

the roof made from? Explain to the students that in Australia most of the houses have walls made<br />

from brick or wood and a roof made of clay tiles or metal sheeting, but not all houses around the<br />

world are built the same way. QP PA<br />

4. Students use iPads® to scan the QR codes on page 56 to view different types of houses around the<br />

world. From observing the images, students predict which materials they think have been used to<br />

build the walls and the roof of each house and record their predictions on page 56.<br />

Note: If students are unfamiliar with scanning QR codes, place five iPads® in the centre of a group<br />

with one image loaded onto each iPad® prior to starting the lesson. QP PC<br />

Differentiation<br />

• Less capable students may work in a group to view and discuss the different types of materials<br />

each house is made from and may use an adult helper to scribe or assist in the discussion of<br />

materials and their properties.<br />

• More capable students may use page 57 to view the types of houses and record where the type<br />

of house is built and what material it is made from.<br />

5. Read the book Houses around the world by Judy Nayer or listen to the online reading at<br />

. View the images of different houses and discuss the materials<br />

they are made from. Compare similarities and differences between the houses. PA<br />

Reflection:<br />

6. Using a think-pair-share, ask students to discuss the fol<strong>low</strong>ing questions. Are all houses built with<br />

the same materials? What materials can houses be built from? Why are different materials used to<br />

build different houses? C<br />

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Lesson 5<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Tree house<br />

Tent<br />

Stilt house<br />

Hut<br />

Mud hut<br />

My house<br />

Houses around the world – 1<br />

A house found high in a tree in fo<strong>res</strong>ts where<br />

the ground is often very wet.<br />

What material is this house made from?<br />

A moveable house found in hot deserts where<br />

materials are hard to get.<br />

What material is this house made from?<br />

A house made on stilts found above wet<br />

ground or the ocean.<br />

What material is this house made from?<br />

A moveable house found in fo<strong>res</strong>ts where the<br />

ground is often dry.<br />

What material is this house made from?<br />

A house found in warm areas where there are<br />

not many trees and the ground is dry.<br />

What material is this house made from?<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 5<br />

Houses around the world – 2<br />

Tree house<br />

Where is this type of house built?<br />

Tent<br />

Stilt house<br />

Hut<br />

Mud hut<br />

What material is this house made from?<br />

Where is this type of house built?<br />

What material is this house made from?<br />

Where is this type of house built?<br />

What material is this house made from?<br />

Where is this type of house built?<br />

What material is this house made from?<br />

Where is this type of house built?<br />

What material is this house made from?<br />

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My house<br />

Where do you live?<br />

What materials have been used to make<br />

your house?<br />

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Lesson 6<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What types of materials are used to make clothing?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students investigate how different types of materials<br />

are used to make different clothing.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including videos<br />

• participating in an online interactive activity<br />

• using the ShowMe application on an iPad® to take<br />

digital photographs and record audio over the<br />

images<br />

Background information<br />

• Clothing and accessories are made of different<br />

materials depending on their use and the<br />

availability of materials. They can be made from<br />

natural fibers such as cotton, linen, wool or silk,<br />

or from man-made fib<strong>res</strong> such as acrylic, nylon,<br />

polyester or lycra. Clothing can also be made of<br />

other materials including leather, metal, plastic<br />

or wood.<br />

• Cotton can be used to make jeans, T-shirts and<br />

socks. It is strong when woven into fabric, soft,<br />

flexible, smooth, cool to wear and very absorbent.<br />

• Wool can be used to make jumpers, gloves,<br />

beanies and scarves. It is strong when woven into<br />

fabric, soft, flexible, rough, warm to wear and<br />

absorbent.<br />

• Leather can be used to make jackets, vests,<br />

pants, skirts and belts. It is strong, flexible or stiff<br />

(depending on the object), smooth or rough and<br />

is cool in summer and warm in winter.<br />

• Silk can be used to make d<strong>res</strong>ses, ties, hair<br />

ribbons and suits. It is strong when woven into<br />

fabric, soft, flexible, smooth, shiny, warm to wear<br />

and is absorbent.<br />

• Plastic can be used to make raincoats, gumboots<br />

and umbrellas. It is strong, flexible or stiff,<br />

(depending on the object), and is smooth and<br />

waterproof.<br />

Assessment focus:<br />

• View the student's ShowMe<br />

videos to monitor their ability<br />

to describe the properties of<br />

materials used to make clothing.<br />

Resources<br />

• Online interactive activity—D<strong>res</strong>s<br />

for the weather at <br />

• Two pieces of clothing made from<br />

nylon or lycra, such as a swimsuit,<br />

a leotard or cycling pants<br />

• One piece of clothing made from<br />

cotton, such as jeans, a T-shirt or<br />

cotton socks<br />

• One piece of clothing made from<br />

wool, such as a woollen jumper,<br />

a beanie, a scarf or woollen gloves<br />

• One piece of clothing made from<br />

leather, such as a jacket, a vest,<br />

a skirt or a belt<br />

• One piece of clothing made from<br />

silk, such as a silk d<strong>res</strong>s, a silk top,<br />

a tie or a hair ribbon<br />

• One piece of clothing made<br />

from plastic, such as a raincoat or<br />

gumboots<br />

• Five sets of coloured and laminated<br />

property cards on pages 46 and 47<br />

(re-use from Lesson 2)<br />

• Five iPads® with the ShowMe<br />

application installed<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Lesson 6<br />

Lesson plan<br />

Introduction:<br />

1. Students participate in an online activity at , where they select appropriate clothing for the weather and temperature, by observing<br />

the conditions and thermometer. Students should be encouraged to explain why they chose each<br />

piece of clothing. N.B. Discuss briefly that 'fall' is the American term for 'autumn'.<br />

Development:<br />

2. Show students two pieces of clothing made from nylon or lycra, such as a swimsuit, a leotard or<br />

cycling pants. Using a think-pair-share, students discuss the questions If someone was wearing this<br />

clothing, what might they be doing? and Why would they wear that particular type of clothing for<br />

that activity? Explain to students that materials are chosen for clothing based on their properties.<br />

Clothing made from nylon or lycra, such as a swimsuit, a leotard or cycling pants, will be very<br />

flexible, stretchy and lightweight. It is designed to be tight-fitting and is often used for exercising.<br />

QP PA<br />

3. While students are sitting on the mat, revise the property cards used in Lesson 2. Ask students to explain<br />

what each word means in their own words. Clarify any that students are unsure of. PA<br />

4. Divide the class into five groups and allocate each group a type of clothing material—cotton,<br />

wool, leather, silk or plastic. Give each group one iPad® with the ShowMe application installed,<br />

one piece of clothing that is made from their given material and a set of property cards from<br />

Lesson 2. Note: Examples of clothing made from each material is provided in the <strong>res</strong>ource<br />

section on page 58. As a group, students use their senses to describe the piece of clothing and its<br />

properties. Students then use the ShowMe application to take a digital photograph of the clothing<br />

and describe what material they think it is made from based on its properties, taking turns at<br />

speaking. Students may also explain what activity they think that piece of clothing is best suited to<br />

based on its properties. Alternatively, students can create posters for each type of material. After<br />

a few minutes, rotate groups until they have all observed the five materials. Q P P C P A<br />

Differentiation<br />

• Less capable students may be grouped together and given limited properties to test for each<br />

material. An adult helper can assist students to read the property cards and ask the students<br />

questions, such as Can you stretch it? Is it flexible? (or Can it bend?).<br />

• More capable students may be encouraged to <strong>res</strong>earch other objects made from each material<br />

to create a list of objects for each material.<br />

5. Play a guessing game with the students by thinking of a piece of clothing made from wool, cotton,<br />

leather, silk or plastic and, without telling students what the piece of clothing is, describing its<br />

properties and the activity you may be doing while wearing that piece of clothing. For example, 'I'm<br />

thinking of a piece of clothing that is made of wool. It is soft, fluffy and flexible. I wear it on my hands<br />

to keep them warm in winter. My piece of clothing is ... (woollen gloves or mittens)'. Depending on<br />

students' abilities, they may be encouraged to play this game in pairs. P A<br />

Reflection:<br />

6. View the online video—Properties of fabrics: The cross-country run at to see a race between three children each wearing an outfit made of a different<br />

material—plastic, paper and metal. Using a think-pair-share, students discuss the question at the<br />

end of the video—Why did Sarah's clothing help her win the race? C<br />

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Assessment<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>Science</strong> knowledge<br />

Objects are made of materials that have observable properties (ACSSU003)<br />

Indicators<br />

• Identifies an object made from a given material based on prior knowledge.<br />

• Identifies basic observable properties of different objects and materials.<br />

• Identifies types of materials used for building homes.<br />

• Identifies types of materials used for making clothes.<br />

Differentiation<br />

• Easier option—Page 61 requi<strong>res</strong> students to draw two objects made from a given material (wood,<br />

glass, plastic, metal, paper or fabric) and then orally describe their properties to a teacher or<br />

assistant. Students then identify materials used to build their house and make their clothes, and<br />

either write or draw the materials. Alternatively, students may find and sort objects from around<br />

the classroom into the types of materials, and describe their properties using a video camera or<br />

an iPad®.<br />

• Harder option—Page 62 requi<strong>res</strong> students to draw one object made from a given material (wood,<br />

glass, plastic, metal or paper) and then write words or sentences to describe its properties.<br />

Students then identify three materials that can be used to make houses and three materials that<br />

can be used to make clothing. Students may also be encouraged to explain why those materials<br />

are used for buildings and clothing, referring to the properties of each material.<br />

Answers<br />

Page 61 and Page 62<br />

1. Teacher check<br />

Answers may include familiar objects such as those listed on page 42.<br />

2. Teacher check<br />

Answers may include bricks, metal, wood, glass, clay and fabric.<br />

3. Teacher check<br />

Answers may include fabric, plastic and leather. Some students may include individual materials<br />

used to make fabrics, such as wool, cotton, silk or nylon.<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Assessment<br />

Objects and their properties<br />

1. Draw two objects made of each type of material and describe<br />

each object to a teacher.<br />

wood<br />

plastic<br />

paper<br />

2. Which materials were<br />

used to build your house?<br />

glass<br />

metal<br />

fabric<br />

3. Which materials were<br />

used to make your clothes?<br />

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Assessment<br />

Objects and their properties<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

1. Draw an object made of each type of material and write<br />

words to describe its properties.<br />

wood<br />

glass<br />

plastic<br />

metal<br />

paper<br />

Material<br />

Observable properties<br />

2. Name three materials that can be used to build homes.<br />

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3. Name three materials that can be used to make clothing.<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

<strong>STEM</strong> project overview<br />

<strong>STEM</strong> project<br />

Make a sailboat that can float<br />

Students work in pairs to design and build a sailboat that can float. The sailboat must have<br />

featu<strong>res</strong> made from different materials and must float on water for one minute. Students use<br />

an iPad® or digital camera to take a photograph of their sailboat before, during and after the<br />

floating challenge to test its effectiveness.<br />

Concepts overview:<br />

<strong>Science</strong><br />

• Apply knowledge of the properties of different materials to create a sailboat that can float.<br />

• Use <strong>Science</strong> Inquiry Skills to explore properties of materials.<br />

Technology/Engineering<br />

• Apply the design process to plan, create and evaluate a sailboat made from different materials<br />

that can float on water.<br />

• Select appropriate materials and apply safety procedu<strong>res</strong> while creating.<br />

• Take digital photographs of the sailboat before, during and after the floating challenge.<br />

Mathematics<br />

• Use one-to-one cor<strong>res</strong>pondence and number recognition to count the number of each part<br />

required and to count the number of each type of material needed.<br />

• Sequence the before, during and after photographs of their sailboat in order when<br />

communicating their sailboat to other students.<br />

Alternative project ideas:<br />

• As a class, design and create a hut village for the playground. Small groups can create<br />

a hut each to contribute to the hut village. Students decide which materials to use to<br />

make a strong, protective hut and create it. Students film their hut and explain why they<br />

chose each material. Videos may be added to a school blog or website to communicate<br />

student's learning.<br />

• In small groups, students design and create three outfits for a teddy bear that suit each<br />

weather type—hot, cold or wet. Students decide which fabrics to use to make each outfit,<br />

based on the material’s properties. Outfits must be able to be put on and taken off.<br />

Conduct a teddy bear fashion show to display each outfit. Students act as the p<strong>res</strong>enter,<br />

explaining their teddy bear's outfits.<br />

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<strong>STEM</strong> project<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

SCIENCE CURRICULUM<br />

<strong>Science</strong> Understanding<br />

• Objects are made of materials that have observable properties (ACSSU003)<br />

<strong>Science</strong> as a Human Endeavour<br />

• <strong>Science</strong> involves observing, asking questions about, and describing changes in, objects and events (ACSHE013)<br />

<strong>Science</strong> Inquiry Skills<br />

Questioning and predicting<br />

• Pose and <strong>res</strong>pond to questions about familiar objects and events (ACSIS014)<br />

Planning and conducting<br />

• Participate in guided investigations and make observations using the senses (ACSIS011)<br />

Processing and analysing data and information<br />

• Engage in discussions about observations and rep<strong>res</strong>ent ideas (ACSIS233)<br />

Communicating<br />

• Share observations and ideas (ACSIS012)<br />

TECHNOLOGIES CURRICULUM<br />

Design and Technologies Knowledge and Understanding<br />

• Identify how people design and produce familiar products, services and environments and consider sustainability to<br />

meet personal and local community needs (ACTDEK001)<br />

• Explore the characteristics and properties of materials and components that are used to produce designed solutions<br />

(ACTDEK004)<br />

Design and Technologies Processes and Production Skills<br />

• Generate, develop and record design ideas through describing, drawing and modelling (ACTDEP006)<br />

• Use materials, components, tools, equipment and techniques to safely make designed solutions (ACTDEP007)<br />

• Use personal preferences to evaluate the success of design ideas, processes and solutions including their care for<br />

environment (ACTDEP008)<br />

<strong>STEM</strong> curriculum links<br />

• Sequence steps for making designed solutions and working collaboratively (ACTDEP009)<br />

Digital Technologies Knowledge and Understanding<br />

• Recognise and explore digital systems (hardware and software components) for a purpose (ACTDIK001)<br />

MATHEMATICS CURRICULUM<br />

Number and Algebra<br />

• Establish understanding of the language and processes of counting by naming numbers in sequences, initially to and<br />

from 20, moving from any starting point (ACMNA001)<br />

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• Connect number names, numerals and quantities, including zero, initially up to 10 and then beyond (ACMNA002)<br />

Measurement and Geometry<br />

• Compare and order duration of events using everyday language of time (ACMMG007)<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Teacher notes<br />

<strong>STEM</strong> project<br />

<strong>STEM</strong> project:<br />

Design and create a sailboat with parts made from different materials that suit the part’s<br />

purpose. Take digital photographs of the sailboat before, during and after the floating<br />

challenge to test its effectiveness.<br />

Estimated duration: 4 weeks<br />

1. Introduce the project<br />

• Read the problem on page 66 to students.<br />

• Watch the first minute of an online video<br />

at . This<br />

video clip shows children racing toy<br />

sailboats that they have created across a<br />

pool.<br />

• As a class, ask students to close their eyes<br />

and think about these questions: How do<br />

sailboats move? What parts do sailboats<br />

have that help them to move? What type of<br />

materials are used to make each part?<br />

• Read the task and the important<br />

information on page 66 to students.<br />

Note: Keep the design brief on display on<br />

the interactive whiteboard or print an A3<br />

copy and put it on display for students to<br />

refer to.<br />

2. Find out information<br />

• Provide time for students to find out<br />

information about materials and sailboats.<br />

• Watch a video about the parts of a sailboat<br />

at . Note:<br />

This explains many different parts of a<br />

sailboat. Students will only need to create<br />

a hull, a deck, a mast, two sails and ropes<br />

for rigging. Use pages 68 or 69 to revise<br />

where these five parts of the sailboat are.<br />

• Provide a selection of nonfiction and<br />

fiction texts about materials and sailboats<br />

for students to look at, ensuring that only<br />

factual information is transferred.<br />

• Review posters, photographs and activities<br />

completed throughout the lessons to revise<br />

the properties of materials and the objects<br />

different materials are used for. Then play a<br />

song to reiterate the purpose for choosing<br />

different materials based on their properties<br />

at .<br />

3. Design, plan and manage <strong>res</strong>ources<br />

• Using page 70, students plan their sailboat<br />

and draw a diagram of it, labelling the<br />

five parts of the sailboat that need to<br />

be included—hull, deck, mast, sails and<br />

rigging.Students then decide which<br />

materials will be used to make each part<br />

and record them on page 70. Students<br />

will need to be reminded to think of the<br />

properties of each material.<br />

• Students collect the materials necessary.<br />

Remind students about <strong>res</strong>ource<br />

management, conserving <strong>res</strong>ources and<br />

ensuring that <strong>res</strong>ources are shared.<br />

4. Create<br />

• Students make each part of the sailboat<br />

with the planned materials.<br />

• Students create their sailboat, then place<br />

five marbles in it and take a photograph of<br />

it.<br />

5. Evaluate and refine<br />

• Students place their sailboat in a<br />

water trolley for one minute and take a<br />

photograph of it.<br />

• Students take their sailboat out of the<br />

water and take another photograph of it.<br />

6. Communicate<br />

• Students discuss their sailboat with<br />

another pair. Students should show their<br />

sailboat, the photographs before, during<br />

and after the floating challenge and<br />

tell the other pair about their sailboat's<br />

featu<strong>res</strong>, the materials each feature was<br />

made from and its success.<br />

• Students complete the self-assessment<br />

on page 71 to assess how well they<br />

participated and cooperated with each<br />

other.<br />

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<strong>STEM</strong> project<br />

The problem<br />

Lauren and Eric desperately want to join the<br />

local sailing club but they are too young. The man<br />

at the sailing club has invited Lauren and Eric to enter<br />

a model sailboat competition that is being<br />

held at the lake at the weekend. They are both<br />

very excited about entering the competition<br />

and are keen to build their sailboat.<br />

What materials should Lauren and Eric’s sailboat<br />

be made out of to help it stay upright and afloat while<br />

it sails in the wind?<br />

The task<br />

Project brief<br />

• Design and create a model sailboat that<br />

Lauren and Eric could use in their competition,<br />

choosing materials for each part based on the<br />

material’s properties.<br />

• Take digital photographs of the sailboat before,<br />

during and after the floating challenge to test the<br />

effectiveness of the materials chosen for each part.<br />

Important things you need to do!<br />

• You must work in pairs.<br />

• Your sailboat must have<br />

one hull, one deck, one<br />

mast, two sails and<br />

rigging to hold the<br />

sails in place.<br />

• You must use a<br />

different type of<br />

material for each<br />

part of the sailboat.<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

• You must explain why you chose<br />

each material for each part, based<br />

on its properties.<br />

• Your sailboat must be able to hold<br />

five marbles.<br />

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• You must take a digital photograph<br />

of the sailboat before, during and<br />

after the floating challenge.<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Project steps<br />

<strong>STEM</strong> project<br />

Find out information<br />

Learn about the parts of a sailboat.<br />

Watch a video about the parts of a sailboat.<br />

Read books about sailboats.<br />

Look at a labelled diagram of a sailboat.<br />

Think about the properties of materials.<br />

Explore lots of different objects and test their properties.<br />

Read books about materials and their properties.<br />

Play an interactive game to test if objects are bendy/waterproof.<br />

Design, plan and collect <strong>res</strong>ources<br />

Plan your sailboat.<br />

Draw a picture of your sailboat and label the parts.<br />

Draw/write the materials you need for each part.<br />

Collect the materials you need.<br />

Create<br />

Create your sailboat.<br />

Make each part of the sailboat with the planned materials.<br />

Make the sailboat and place five marbles inside it.<br />

Check and make changes<br />

Check that it is correct and you are happy with it.<br />

Check that all the important things on page 66 were done.<br />

Check that both partners are happy with it.<br />

Communicate<br />

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Tell another group about your sailboat.<br />

Show photographs and the model sailboat to another group.<br />

Tell the other group about the materials used to make it.<br />

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<strong>STEM</strong> project<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Sailboat diagram – 1<br />

mast<br />

deck<br />

sail<br />

hull<br />

rigging<br />

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sail<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

<strong>STEM</strong> project<br />

Sailboat diagram – 2<br />

__________<br />

__________<br />

__________<br />

_____________<br />

_______________<br />

__________<br />

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<strong>STEM</strong> project<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

1. Draw a picture of your sailboat and label the parts.<br />

2. Write the materials you will use for each part of the sailboat.<br />

hull<br />

deck<br />

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mast<br />

sails<br />

rigging<br />

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Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

<strong>STEM</strong> project<br />

Self – assessment<br />

Student name:<br />

Date:<br />

<strong>STEM</strong> project: Make a sailboat that can float<br />

I listened to my partner.<br />

I gave ideas.<br />

I helped to find out information.<br />

I helped collect materials.<br />

I helped make the plan.<br />

I helped make the design.<br />

The project was: easy hard<br />

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I liked ...<br />

.<br />

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<strong>STEM</strong> project<br />

Chemical sciences<br />

MATERIALS HAVE PROPERTIES<br />

Group assessment rubric<br />

Group members:<br />

CRITERIA<br />

Project task:<br />

Design and create a sailboat with parts made from different materials that suit the part’s<br />

purpose. Take digital photographs of the sailboat before, during and after the floating<br />

challenge to test its effectiveness.<br />

<strong>Science</strong> knowledge<br />

Create a sailboat that is able to float and that has parts made from different materials<br />

which suit that part’s purpose.<br />

<strong>Science</strong> skills<br />

Creates a labelled diagram of the sailboat and lists the materials that will be used<br />

for each part.<br />

Plans, conducts and evaluates an investigation to explore the properties of the materials<br />

used for each part.<br />

Communicates science understanding correctly, clearly and concisely to another pair.<br />

Technology/Engineering skills<br />

Plans and designs a sailboat that can float.<br />

Investigates and uses different types of materials to suit each part of the sailboat, based<br />

on the material's properties.<br />

Creates a sailboat using materials and tools safely.<br />

Takes three photographs using a digital camera to show the sailboat before, during and<br />

after the floating challenge.<br />

Mathematics<br />

Counts the number of parts and materials correctly using one-to-one cor<strong>res</strong>pondence.<br />

Sequences three digital photographs of the sailboat in order.<br />

Group skills<br />

All group members contributed fairly and appropriately.<br />

All group members collaborated and communicated effectively.<br />

Group members were able to <strong>res</strong>olve conflicts independently.<br />

1 = Be<strong>low</strong> expectation<br />

2 = Meeting expectation<br />

3 = Above expectation<br />

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Earth and space<br />

sciences<br />

DAILY AND SEASONAL CHANGES<br />

weather<br />

hot<br />

warm<br />

cool<br />

cold<br />

freezing cold<br />

sunny<br />

rainy<br />

Keywords<br />

windy<br />

snowy<br />

cloudy<br />

stormy<br />

thunder<br />

lightning<br />

season<br />

summer<br />

autumn<br />

winter<br />

spring<br />

seasonal changes<br />

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hibernation<br />

migration<br />

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Unit overview<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Daily and seasonal changes in our environment affect everyday life (ACSSU004)<br />

Pages<br />

Lesson 1<br />

What is weather?<br />

Lesson 2<br />

How does weather<br />

affect our daily<br />

lives?<br />

Lesson 3<br />

What are seasons?<br />

What is the weather<br />

like in each season?<br />

Lesson 4<br />

How do seasons<br />

affect our daily<br />

lives?<br />

Lesson 5<br />

How do seasonal<br />

changes affect<br />

plants and animals?<br />

Lesson 6<br />

How did traditional<br />

Aboriginal and<br />

Tor<strong>res</strong> Strait<br />

Islanders use<br />

their knowledge<br />

of weather and<br />

seasons in their<br />

everyday lives?<br />

Summative<br />

assessment<br />

<strong>STEM</strong> project<br />

Make a diorama<br />

showing the<br />

seasons<br />

Students engage in a school walk to observe the day's<br />

weather. Students explore the types of weather and how to<br />

identify each type of weather by looking at environmental<br />

clues. Students match weather words to images to familiarise<br />

themselves with different types of weather.<br />

Students explore how weather affects our daily lives. They<br />

participate in an interactive game and view a video of children<br />

enjoying different types of weather. They then identify how we<br />

alter our clothing, the activities we do and the places we visit<br />

depending on the type of weather.<br />

Students participate in an interactive activity to describe the<br />

weather in each of four scenes. Students then predict which<br />

season they think each image relates to. Students work as a<br />

group to predict the types of weather found in each season and<br />

compare these to information provided by an online video.<br />

Students explore how seasons affect our daily lives. They<br />

watch online videos of each season, pausing to think about<br />

and record the clothing worn, the activities conducted and the<br />

places visited in each season. Students draw images or write<br />

words to show how we alter our clothing, the activities we do<br />

and the places we visit depending on the type of weather.<br />

Students participate in an interactive activity to describe the<br />

plants and animals in each season before predicting how each<br />

plant and animal changes with each new season. Students briefly<br />

explore how animals avoid winter when food sources are scarce,<br />

through a simple introduction to hibernation and migration.<br />

Students listen to a Dreaming story about changes in seasons.<br />

Students revise how weather and seasons affect our daily lives<br />

before exploring how they affected traditional Aboriginal and<br />

Tor<strong>res</strong> Strait Islanders. Students learn about the six Noongar<br />

seasons and the six Kakadu seasons to see how the food they<br />

hunt changes with each new season and how this affected<br />

where they lived.<br />

Students explain their knowledge of weather and seasons.<br />

They explain how the weather in each season affects how we<br />

alter our clothing, the activities we do and the places we visit.<br />

Students create a diorama to show the weather and seasons of<br />

Australia and how each season affects our daily lives, including<br />

the clothing we wear, the activities we do and the places we<br />

visit. Students then create a video of the diorama to explain<br />

how each season affects our daily lives.<br />

76–79<br />

80–83<br />

84–87<br />

88–91<br />

92–95<br />

96–99<br />

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100–102<br />

103–112<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Unit overview<br />

Curriculum scope and sequence<br />

SCIENCE UNDERSTANDING<br />

Daily and seasonal changes in our environment affect everyday life<br />

(ACSSU004)<br />

SCIENCE AS A HUMAN ENDEAVOUR<br />

<strong>Science</strong> involves observing, asking questions about, and describing<br />

changes in, objects and events (ACSHE013)<br />

SCIENCE INQUIRY SKILLS<br />

Questioning and predicting<br />

Lesson<br />

1 2 3 4 5 6 Assessment<br />

<strong>STEM</strong><br />

project<br />

3 3 3 3 3 3 3 3<br />

3 3 3 3 3 3 3<br />

Pose and <strong>res</strong>pond to questions about familiar objects and events<br />

(ACSIS014)<br />

3 3 3 3 3 3 3<br />

Planning and conducting<br />

Participate in guided investigations and make observations using<br />

the senses (ACSIS011)<br />

Processing and analysing data and information<br />

Engage in discussions about observations and rep<strong>res</strong>ent ideas<br />

(ACSIS233)<br />

Communicating<br />

3 3 3 3 3 3 3<br />

3 3 3 3 3 3 3<br />

Share observations and ideas (ACSIS012) 3 3 3 3 3 3 3 3<br />

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Lesson 1<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What is weather?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students observe different featu<strong>res</strong> in the sky and landscape<br />

as well as the temperature and wind to predict the weather<br />

for the day.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including online songs and videos<br />

• using tools safely when cutting out puzzle pieces<br />

• identifying the 2D shape made by the connecting puzzle<br />

pieces (optional)<br />

Background information<br />

• Weather is defined as ‘the state of the atmosphere with<br />

<strong>res</strong>pect to wind, temperature, cloudiness, moisture,<br />

p<strong>res</strong>sure etc.’ In this unit, weather will relate to sun,<br />

wind, rain, cloud, snow, storms, lightning, thunder and<br />

temperature.<br />

• Determining the type of weather requi<strong>res</strong> observation<br />

of the sky and the landscape, and may require specific<br />

measuring devices such as thermometers.<br />

• Prompting questions for observing different weather<br />

types:<br />

– Sunny—Is the sun shining? Is the sun covered by clouds?<br />

Is the weather warm or cool?<br />

– Cloudy/Partly cloudy—Are there clouds in the sky? If so,<br />

how many? Do the clouds look white and fluffy or dark<br />

grey? Is the weather warm or cool?<br />

– Windy—Are the leaves on trees moving? Is your hair<br />

b<strong>low</strong>ing in the wind? Is the weather warm or cool?<br />

– Rainy—Is the ground and other things wet? Can you see<br />

water droplets falling from the clouds? Is the weather<br />

warm or cool?<br />

– Stormy—Are the clouds dark grey? Is it raining? Can you<br />

see lightning? Can you hear thunder? Is the weather<br />

warm or cool?<br />

Assessment focus:<br />

• Use the brainstorm in the<br />

Introduction to assess the<br />

student's prior knowledge of<br />

weather.<br />

• Monitor the student's<br />

<strong>res</strong>ponses to the questions in<br />

the Reflection to assess their<br />

understanding of different types<br />

of weather.<br />

Resources<br />

• A large piece of paper<br />

with the question 'What<br />

is weather?' written in the<br />

centre<br />

• Digital cameras (optional)<br />

• Online video—Check out<br />

the weather at <br />

• One copy of page 78 for<br />

each student<br />

• Online video—Types of<br />

weather at <br />

• A mini whiteboard for<br />

each student<br />

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A <strong>STEM</strong> APPROACH<br />

F


Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 1<br />

Lesson plan<br />

Introduction:<br />

1. Write the question 'What is weather?' on a large piece of paper and read it aloud to the class.<br />

Al<strong>low</strong> 30 seconds of silence for students to think about all the different aspects of weather. Conduct<br />

a brainstorm with the students to identify their ideas and write them on the page. QP<br />

Development:<br />

2. As a class, walk outside and observe the day's weather. What things are in the sky? Are the trees<br />

moving? Is it wet or dry outside? Is it hot or cold? Using a think-pair-share, students discuss the<br />

question How would you describe the weather today? Select pairs to share their ideas with the<br />

class. Students may be encouraged to take a digital photograph of the weather each day to create<br />

a weather chart. PC PA<br />

3. Listen to the song 'Check out the weather' at . Pause the song at<br />

2.42 as the <strong>res</strong>t of the song discusses advanced weather concepts.<br />

4. Provide each student with a copy of page 78. Students cut out the puzzle pieces and match the<br />

weather words to the weather pictu<strong>res</strong>. Note: These can be left as puzzle pieces for future practice<br />

or pasted in matching pairs onto a piece of coloured paper or into a science journal. Students<br />

may be encouraged to name the 2D shape made by the connecting puzzle pieces to check their<br />

answers. PC PA<br />

Differentiation<br />

• Less capable students may be assisted to read the weather words on page 78 by providing<br />

them with beginning sounds in each word. This will help them match the weather jigsaw puzzle<br />

pieces.<br />

• More capable students may be encouraged to create more puzzle pieces by providing them<br />

with a blank copy of the puzzle pieces on page 79. Students draw an image on one piece and<br />

have a go at writing the word on another to add different types of weather to the puzzle, such<br />

as foggy, partly cloudy or hail.<br />

5. Watch the video Types of weather at . This video explains each type<br />

of weather in a simple, concise way.<br />

Reflection:<br />

6. Give each student a mini whiteboard and a whiteboard marker. As a class, conduct a quiz to assess<br />

students' understanding. When a question is asked, students <strong>res</strong>pond to the question by drawing<br />

an image or writing a word on their mini whiteboard. Questions may include: What is the weather<br />

like today? What was the weather like yesterday? If I am hot and sweaty, what might the weather be<br />

like? If I am cold and shivering, what might the weather be like? If my hair is b<strong>low</strong>ing into my face,<br />

what might the weather be like? Note: Lesson 2 will explore how weather affects our daily lives,<br />

including clothing, activities and places we visit. PA C<br />

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77


Lesson 1<br />

Weather jigsaw puzzles – 1<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

sunny<br />

rainy<br />

windy<br />

snowy<br />

cloudy<br />

stormy<br />

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F


Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Weather jigsaw puzzles – 2<br />

Lesson 1<br />

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79


Lesson 2<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How does weather affect our daily lives?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students identify how the weather affects our daily lives,<br />

including the clothing we wear, the activities we do and<br />

the places we go.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including online songs and videos<br />

• participating in an online interactive activity to explore<br />

different weather conditions<br />

• taking digital photographs of themselves at home or at<br />

school in different weather conditions to add to a class blog<br />

about weather (optional)<br />

Background information<br />

• As humans, weather affects our clothing, our activities<br />

and the places we visit. It also impacts how we protect<br />

ourselves against extreme conditions, such as wearing<br />

sunscreen in the sun and securing items in strong winds.<br />

• Sunny weather typically generates images of people<br />

wearing light clothing such as shorts, T-shirts and<br />

d<strong>res</strong>ses, with thongs or sandals. You may see people<br />

playing sport in the park or building sandcastles at the<br />

beach. People may also enjoy spending time outdoors<br />

visiting zoos and playgrounds, and having barbecues.<br />

• Rainy or stormy weather typically generates images of<br />

people wearing warm, thick clothing such as tracksuit<br />

pants, jeans, warm jackets/parkas, scarves, gloves,<br />

closed-in shoes and raincoats, and carrying umbrellas.<br />

You may see people jumping in puddles or staying<br />

indoors watching movies and playing games. People<br />

often visit shopping cent<strong>res</strong> and movie theat<strong>res</strong> when it<br />

is wet outside.<br />

• Windy weather typically generates images of people<br />

wearing warm wind-proof jackets, trousers and scarves.<br />

You may see people flying kites or making wind socks.<br />

People often visit indoor places when it is very windy.<br />

Assessment focus:<br />

• Use page 83 to assess the<br />

student's understanding of how<br />

the weather affects the clothing<br />

we wear, the activities we do<br />

and the places we visit.<br />

Resources<br />

• Online video—Hello world:<br />

weather at <br />

• Online video—Sesame<br />

Street—Weather at <br />

• A digital copy of page 82<br />

for display on the<br />

interactive whiteboard<br />

• A copy of page 83 for each<br />

student<br />

• Digital cameras (optional)<br />

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F


Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 2<br />

Lesson plan<br />

Introduction:<br />

1. Read the book Hello world: weather by Jill McDonald, or watch a reading online at . Pause the video after each weather condition for students to use a think-pairshare<br />

to describe what they might see or feel in each weather type, and what types of clothing they<br />

would wear and activities they would do. QP<br />

Development:<br />

2. Watch the video Sesame Street—Weather at . Discuss Elmo’s ideas<br />

about weather and identify the clothing worn, the activities conducted and the places they visited<br />

in each weather type. PA<br />

3. Display the poster on page 82 on the interactive whiteboard. Discuss each question in relation to<br />

different types of weather. What would you wear if it was raining? What would you wear if it was<br />

sunny? What activities would you do if it was windy outside? Where you you go if it was snowing?<br />

PA<br />

4. Give each student a copy of page 83. Students draw images to show what they would wear,<br />

what they would do and where they would go in each type of weather. Note: Leave the poster on<br />

page 82 on display on the interactive whiteboard for students to refer to. PC<br />

Differentiation<br />

• Less capable students may record a video explaining what they would wear, what they would do<br />

and where they would go in each type of weather, with prompting questions being provided by<br />

an adult or more capable student.<br />

• More capable students should be encouraged to write words or sentences to describe what<br />

they would wear, what they would do and where they would go for each weather type.<br />

• To incorporate more digital technologies, students may be asked to take digital photographs of<br />

themselves in different weather conditions at school and at home. Parents can be encouraged to<br />

email them to the teacher or add them to a class blog about weather.<br />

Reflection:<br />

5. Using a think-pair-share, students show their partner the images drawn on page 83 and use<br />

sentences to describe the information. For example, when it is raining, I wear my raincoat and<br />

gumboots. I like to go to my friend's house and jump in puddles. PA C<br />

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81


Lesson 2<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

What do you wear?<br />

What do you do?<br />

Where do you go?<br />

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F


Earth and space sciences<br />

Lesson 2<br />

DAILY AND SEASONAL CHANGES<br />

Draw a picture to show what you wear, what you do and where<br />

you go in each type of weather.<br />

sunny<br />

windy<br />

snowy<br />

stormy<br />

What do<br />

you wear?<br />

What do<br />

you do?<br />

Where do<br />

you go?<br />

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83


Lesson 3<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

What are seasons? What is the weather like in each season?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students explore different types of weather in different<br />

seasons to predict which season they are currently<br />

experiencing.<br />

Technology/Engineering/Mathematics links:<br />

• viewing and extracting information from online videos<br />

• participating in an online interactive activity to explore<br />

different seasons<br />

• participating in a guided survey to create a tally of <strong>res</strong>ults<br />

Background information<br />

• A season is a division of the year when the weather,<br />

ecology and hours of daylight change.<br />

• In Australia, we commonly refer to four seasons—summer<br />

(December–February), autumn (March–May), winter<br />

(June–August) and spring (September–November). In<br />

the northern hemisphere, each season occurs during<br />

different months. In some places, autumn is also called<br />

fall. Students should be aware of both terms.<br />

• Summer is typically defined as a period of sunny weather<br />

with longer days and shorter nights. It is the hottest<br />

season.<br />

• Autumn is a transitional season between summer and<br />

winter and typically includes a period of warm to cool<br />

weather, windy conditions and occasional rain.<br />

• Winter is typically defined as a period of rainy, stormy or<br />

snowy weather with shorter days and longer nights. It is<br />

the coldest season.<br />

• Spring is a transitional season between winter and<br />

summer and typically includes a period of cool to warm<br />

weather, windy conditions and frequent rain.<br />

Assessment focus:<br />

• Use page 87 to monitor the<br />

student's understanding of the<br />

types of weather found in each<br />

season.<br />

Resources<br />

• Seasons images<br />

– summer: <br />

– autumn: <br />

– winter: <br />

– spring: <br />

• Digital copy of page 86 for<br />

display on the interactive<br />

whiteboard<br />

• A copy of page 87 for<br />

each group<br />

• Online video—Seasons,<br />

weather and clothes at<br />

<br />

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A <strong>STEM</strong> APPROACH<br />

F


Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 3<br />

Lesson plan<br />

Introduction:<br />

1. As a class, view or download the fol<strong>low</strong>ing images which depict Australia in different seasons.<br />

Summer image: , Winter image: ,<br />

Autumn image: , Spring image: .<br />

Note: Do not tell the students which season each image is. Discuss what the weather is like in each<br />

image. Ask students to describe how they know what the weather is like in the photographs. What<br />

things can you see that give you clues about the weather? PA C<br />

Development:<br />

2. Explain to the students that the images rep<strong>res</strong>ent four seasons—summer, autumn, winter and<br />

spring. Using a show of hands, ask students to vote for which season they think each image is<br />

showing. When the vote is complete, select students to move the season word to the image that<br />

received the most votes to check if it was correct. Repeat this activity for the remaining images.<br />

Note: It is important to mention that, in Australia, very few places receive snow in winter. Many<br />

places in Australia will only experience wind, rain, thunder and lightening. In other parts of the<br />

world, snow is a common feature of winter. QP PA<br />

3. Display page 86 on the interactive whiteboard to show symbols of different weather types.<br />

Encourage students to have a go at reading the words next to each symbol and clarify any<br />

confusion. Note: Leave the poster on page 86 on display on the the interactive whiteboard for<br />

students to refer to.<br />

4. Divide the class into groups and give each group a copy of page 87. Students work together to<br />

predict the types of weather that may occur in each season. As a group, students draw images or<br />

write the words of each weather type into the section for each season. Students must ensure they<br />

check that the type of weather has not already been drawn/written in that section before adding it.<br />

Note: Completed copies of page 87 will be required for Lesson 4. QP PA<br />

Differentiation<br />

• Less capable students may be grouped together and provided with books and images of each<br />

different season to help identify the types of weather in each season.<br />

• More capable students should be encouraged to write words or sentences to describe the types<br />

of weather in each season.<br />

5. Watch the video Seasons, weather and clothes at . Students may<br />

be encouraged to place a small tick next to each type of weather they guessed correctly in each<br />

season. PA<br />

Reflection:<br />

6. In pairs, students take turns to answer the questions How do you know which season it is? What<br />

weather clues can you look for? Which season are we in now? and How do you know? Encourage<br />

pairs to share their ideas with the <strong>res</strong>t of the class. PA C<br />

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85


Lesson 3<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Weather symbols<br />

My weather chart<br />

Temperature<br />

hot<br />

warm<br />

cool<br />

cold<br />

freezing<br />

cold<br />

sunny<br />

partly<br />

sunny<br />

TODAY’S<br />

Weather<br />

cloudy<br />

windy<br />

rainy stormy snowy<br />

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F


Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 3<br />

Weather and seasons<br />

summer<br />

autumn<br />

What is the<br />

weather<br />

like in each<br />

season?<br />

spring<br />

winter<br />

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87


Lesson 4<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How do seasons affect our daily lives?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students identify how seasonal changes affect our daily<br />

lives, including the clothing we wear, the activities we do<br />

and the places we go.<br />

Technology/Engineering/Mathematics links:<br />

• Viewing and extracting information from online videos<br />

Background information<br />

• In Australia, we commonly refer to four seasons—summer<br />

(December–February), autumn (March–May), winter<br />

(June–August) and spring (September–November). In<br />

the northern hemisphere, each season occurs during<br />

different months. In some places, autumn is also called<br />

fall. Students should be aware of both terms.<br />

• Seasonal trends in clothing can be seen in clothing<br />

sto<strong>res</strong>. Summer clothing is designed to keep you cool in<br />

the hot weather. Autumn clothing is designed to keep<br />

you warm in the cooler windy weather. Winter clothing<br />

is designed to keep you warm in the stormy or snowy<br />

weather. Spring clothing is designed to keep you warm<br />

in the cooler rainy weather.<br />

• Seasonal activities vary depending on inte<strong>res</strong>ts and<br />

specific daily weather but generally include building<br />

sandcastles at the beach in summer, building snowmen<br />

in snowy winters, jumping in puddles in rainy winters,<br />

flying kites in autumn and gardening in spring.<br />

• The places we visit during each season also vary<br />

depending on inte<strong>res</strong>ts and specific daily weather but<br />

generally include visiting outdoor places such as the zoo,<br />

the park or the beach in summer, autumn and spring,<br />

and visiting indoor places such as shopping cent<strong>res</strong>,<br />

movie theat<strong>res</strong> and friends houses in winter and on rainy<br />

days in spring and autumn.<br />

Assessment focus:<br />

• Use the groups' posters<br />

to monitor the students'<br />

understanding of how we<br />

change our clothing, activities<br />

and the places we visit<br />

depending on the season.<br />

Resources<br />

• Completed copies of<br />

page 87 from Lesson 3<br />

• Four A3 copies of page 91<br />

• Online video—Autumn/<br />

Fall at <br />

• Online video—Summer<br />

season at <br />

• Online video—Springtime<br />

at <br />

• Online video—Winter<br />

at <br />

• A selection of objects,<br />

images and books for<br />

each season. A list of<br />

suggestions has been<br />

provided on page 90<br />

(optional)<br />

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A <strong>STEM</strong> APPROACH<br />

F


Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 4<br />

Lesson plan<br />

Introduction:<br />

1. As a class, view students' completed copies of page 87 from Lesson 3. Using a think-pair-share,<br />

students discuss the questions What is the weather like in each season and What do you think you<br />

would see, feel and do in each season? QP PA<br />

Development:<br />

2. Students view the video Autumn/Fall at . Discuss what autumn is<br />

like in relation to the weather, the clothing worn, the activities conducted and the places people<br />

visited. Alternatively, display a selection of objects, books and/or images related to autumn.<br />

Suggestions have been provided on page 90. PC<br />

3. Divide the class into four groups and give each group an enlarged copy of page 91. Students<br />

draw/write as many autumn-related clothes, activities and places as possible in the section entitled<br />

'autumn'. Students should be encouraged to check that the image has not already been drawn in<br />

that section and encouraged to draw small images. PC PA<br />

4. After a few minutes, gather students and view the video Summer season at . Discuss what summer is like in relation to the weather, the clothing worn, the activities<br />

conducted and the places people visit. Alternatively, display a selection of objects, books and/or<br />

images related to summer. Suggestions have been provided on page 90. PC<br />

5. Students return to their groups and draw/write as many summer-related clothes, activities and<br />

places as possible in the section entitled 'summer' on page 91. Remind students about not<br />

repeating images and sizing in the same section. PC PA<br />

6. After a few minutes, gather students and view the video Springtime at . Discuss what spring is like in relation to the weather, the clothing worn, the activities<br />

conducted and the places people visited. Alternatively, display a selection of objects, books and/<br />

or images related to spring. Suggestions have been provided on page 90. PC<br />

7. Students return to their groups and draw/write as many spring-related clothes, activities and<br />

places as possible in the section entitled 'spring' on page 91. Remind students about not<br />

repeating images and sizing in the same section. PC PA<br />

8. After a few minutes, gather students and view the video Winter at .<br />

Discuss what winter is like in relation to the weather, the clothing worn, the activities conducted<br />

and the places people visited. Alternatively, display a selection of objects, books and/or images<br />

related to winter. Suggestions have been provided on page 90. PC<br />

9. Students return to their groups and draw/write as many winter-related clothes, activities and places<br />

as possible in the section entitled 'winter' on page 91. Remind students about repeating images<br />

and sizing in the same section. PC PA<br />

Differentiation<br />

• Less capable students may be grouped together and provided with iPads® to view the videos<br />

multiple times. Students should be encouraged to rewatch the video without sound so it does<br />

not distract the other students.<br />

• More capable students should be encouraged to write words or sentences to identify seasonrelated<br />

clothing, activities and places.<br />

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Reflection:<br />

10. Encourage groups to share their poster with another group and identify any differences in the<br />

group ideas. Display the posters around the classroom. PA C<br />

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Lesson 4<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

SPRING<br />

Concrete objects<br />

• Clothing—which may include<br />

long-sleeved shirts, d<strong>res</strong>ses, cardigans,<br />

tops, closed-in shoes and light trousers.<br />

• Other objects—which may include baby<br />

animals (real or plush), spring-themed felt<br />

boards, a vase of f<strong>low</strong>ers, gardening tools<br />

and an insect catcher.<br />

Images<br />

• Nature—which may include blossom trees,<br />

green leaf trees, f<strong>low</strong>ers growing, birds in<br />

a nest, butterflies flying, baby animals and<br />

rainbows.<br />

• People—which may include children playing<br />

in the sunshine wearing long-sleeved<br />

clothing and trousers, people gardening or<br />

children collecting bugs.<br />

Books<br />

• Spring (Board book) by Gerda Muller<br />

• Everything spring (Picture the seasons)<br />

by Jill Esbaum<br />

• It's spring by Linda Glaser<br />

AUTUMN<br />

Concrete objects<br />

• Clothing—which may include long-sleeved<br />

shirts, d<strong>res</strong>ses, cardigans, denim jackets,<br />

tops, closed-in shoes and trousers.<br />

• Other objects—which may include a<br />

collection of red and brown coloured<br />

leaves, kites, a rake and a plush squirrel<br />

collecting nuts for the winter.<br />

Images<br />

• Nature—which may include leaves falling<br />

from trees, piles of leaves, deciduous trees<br />

and landscapes showing autumn colours.<br />

• People—which may include children flying<br />

kites wearing long-sleeved clothes and<br />

trousers, children jumping in piles of leaves<br />

and adults raking up leaves in the garden.<br />

Books<br />

• Autumn (Board book) by Gerda Muller<br />

• Awesome autumn by Bruce Goldstone<br />

• Autumn is here! by Heidi Pross Gray<br />

• I know it's autumn by Eileen Spinelli<br />

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Learning about seasons<br />

SUMMER<br />

Concrete objects<br />

• Clothing—which may include<br />

swimsuits, hats, sunglasses,<br />

t-shirts, shorts, light d<strong>res</strong>ses,<br />

sandals, thongs and singlets.<br />

• Other objects—which may include<br />

sunscreen, beach towels, shells, picnic<br />

baskets, buckets, spades and summer fruit.<br />

Images<br />

• Nature—which may include the beach, the<br />

park, camping grounds, the lake/river and<br />

sea creatu<strong>res</strong> at the beach (crabs).<br />

• People—which may include children<br />

swimming; people fishing, camping or<br />

snorkelling; families having a barbecue/<br />

picnic in the park; children playing summer<br />

sports (cricket); and people sitting near a<br />

fan/airconditioner.<br />

Books<br />

• Summer (Board book) by Gerda Muller<br />

• Your senses at the beach by Kimberly M<br />

Hutmacher<br />

• Summer by June Factor and Alison Lester<br />

WINTER<br />

Concrete objects<br />

• Clothing—which may include<br />

scarves, beanies, Ugg boots,<br />

gloves, thick socks, thick jacket/<br />

parka, closed-in shoes and a raincoat.<br />

• Other objects—which may include<br />

warm blankets, umbrellas, a rain gauge,<br />

snowglobes and an empty tin of Milo.<br />

Images<br />

• Nature—which may include ski slopes,<br />

thunder and lightning scenes, snowcovered<br />

houses and semi-flooded streets.<br />

• People—which may include children<br />

building snowmen, children splashing in<br />

puddles, people walking with umbrellas<br />

and people skiing down mountains.<br />

Books<br />

• Winter (Board book) by Gerda Muller<br />

• My puddle adventure (The most wonderful<br />

time of the year) by Ally Nathaniel<br />

• How do you know it's winter? by Ruth Owen<br />

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Earth and space sciences<br />

Lesson 4<br />

DAILY AND SEASONAL CHANGES<br />

spring<br />

summer<br />

autumn<br />

winter<br />

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Lesson 5<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How do seasonal changes affect plants and animals?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students identify how seasonal changes affect plants and<br />

animals, including plant and animal reproduction in spring,<br />

trees bearing fruit in summer, animal hibernation and<br />

migration in winter and fruit harvesting in autumn.<br />

Technology/Engineering/Mathematics links:<br />

• viewing and extracting information from online videos<br />

• participating in an online interactive game<br />

Background information<br />

• Plants and animals sense changes in the environment<br />

from season to season.<br />

• In spring, as sunlight hours increase and frequent rain<br />

occurs, plants and animals reproduce. F<strong>low</strong>ers blossom<br />

on plants to al<strong>low</strong> for pollination. Animals begin courting<br />

rituals to find a mate and reproduce. Some animals will<br />

travel a long distance to find a mate.<br />

• Throughout summer, with the abundance of available<br />

food sources and sunlight, plants and animals are<br />

able to grow and mature. Some trees begin sprouting<br />

fruit/seeds and young animals begin to develop<br />

independence. It is also time for animals to begin storing<br />

food for winter.<br />

• In autumn, as sunlight hours decrease and temperatu<strong>res</strong><br />

become cooler, some trees shed their leaves to conserve<br />

energy for winter. Some animals continue storing food<br />

and other begin to migrate for the winter.<br />

• Winter is often a stage of dormancy as food sources<br />

become scarce. Plants will not produce leaves or fruit to<br />

conserve stored energy. Some animals may migrate to<br />

warmer places with more food or hibernate to conserve<br />

energy. Other animals may grow thicker fur to combat<br />

the cold.<br />

Assessment focus:<br />

• View the student's completed<br />

copy of page 95 to assess their<br />

understanding of how animals<br />

cope with winter changes.<br />

• View the brainstorm conducted<br />

in Step 2 and Step 8 to assess<br />

the student's understanding of<br />

how seasonal changes affect<br />

plants and animals.<br />

Resources<br />

• Online video–A fo<strong>res</strong>t<br />

year at <br />

• Online video–The season's<br />

of Arnold's apple tree<br />

at <br />

• Online video–Animals<br />

seasons at <br />

• One A3 copy of page 94<br />

• Online video—Hibernation<br />

at <br />

• Online video—Why do birds<br />

and animals migrate? | Birds<br />

migration video| Video for<br />

Kids at <br />

• One copy of page 95 for<br />

each student<br />

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Earth and space sciences<br />

Lesson 5<br />

DAILY AND SEASONAL CHANGES<br />

Lesson plan<br />

Introduction:<br />

1. View the time lapse video of A fo<strong>res</strong>t year at . Students predict<br />

which season is showing as the video plays. Using a think-pair-share, students describe the featu<strong>res</strong><br />

of the trees as the season changes. How do plants appear to change in each season? PC PA<br />

2. Display an enlarged copy of page 94. Brainstorm students' ideas about how each season affects<br />

plants and animals. QP<br />

Development:<br />

3. As a class view the story about The season's of Arnold's apple tree at . Together, make a list of the changes that occur to the tree during each season. Reinforce<br />

that plants grow leaves and f<strong>low</strong>ers and begin to blossom during spring. Towards the end of<br />

spring and through summer, some trees begin to grow fruit. In autumn, the fruit from the trees is<br />

harvested (collected) and trees begin to shed their leaves. In winter, some trees will appear like<br />

lifeless sticks until the sunshine returns in spring. Note: These are general seasonal changes among<br />

plants. Specialised adaptations also help individual species survive and these will be discussed in<br />

Year 5. PC PA<br />

4. View the video Animals seasons at . In pairs, students discuss one<br />

thing about each season that the video mentions and come up with any questions they may have.<br />

PC PA<br />

5. View the video Hibernation at . Pause the video at 1.23 as the <strong>res</strong>t of<br />

the video discusses more advanced concepts. Using page 95, students draw a picture of an animal<br />

hibernating.<br />

6. View the video Why do birds and animals migrate? | Birds migration video| Video for kids at<br />

. Using page 95, students draw a picture of a group of animals<br />

migrating.<br />

Differentiation<br />

• Less capable students may be grouped together and provided with iPads® or books to view<br />

images of animals hibernating and migrating. Students should be encouraged to describe what<br />

each word means in their own words with a teacher scribing their explanation.<br />

• More capable students should be encouraged to write a sentence underneath their images to<br />

explain what each word means in their own words.<br />

Reflection:<br />

7. Review the brainstorm conducted in Step 2. Read through students initial ideas and add any other<br />

suggestions. Note: It may be useful to use a different colour for additional ideas to monitor students'<br />

learning. Using a think-pair-share, students answer the questions How do changes in the seasons<br />

affect plants? and How do changes in the seasons affect animals? PA C<br />

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Lesson 5<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

spring<br />

autumn<br />

How do seasonal<br />

changes affect plants<br />

and animals?<br />

summer<br />

winter<br />

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Earth and space sciences<br />

Lesson 5<br />

DAILY AND SEASONAL CHANGES<br />

Animals in winter<br />

Draw a picture to show what each word means.<br />

What is hibernation?<br />

What is migration ?<br />

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95


Lesson 6<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How did traditional Aboriginal and Tor<strong>res</strong> Strait Islanders use<br />

their knowledge of weather and seasons in their everyday<br />

lives?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students identify how seasonal changes affected traditional<br />

Aboriginal and Tor<strong>res</strong> Strait Islanders in Australia.<br />

Technology/Engineering/Mathematics links:<br />

• viewing an online animation of the Dreaming story<br />

Tiddalick the frog<br />

• viewing an online image of the six Noongar seasons<br />

Background information<br />

• Aboriginal and Tor<strong>res</strong> Strait Islander people did not have<br />

four seasons like caucasian people. They may have had<br />

two, three, four, five, six or seven. The number of seasons<br />

depended on where they lived and what the weather<br />

was like.<br />

• Indigenous Australian people traditionally define time,<br />

weather and the seasons by what is happening in the<br />

environment around them; i.e. the plants, animals, sky<br />

and weather.<br />

• Indigenous Australian people traditionally have a deep<br />

connection with the natural environment. They know that<br />

when seasons start, certain fruits, insects and animals are<br />

available for food. Many Dreaming stories explain events<br />

in the environment and changes in the weather.<br />

• In monsoon/tropical parts of northern Australia, only two<br />

seasons are recognised—wet season and dry season.<br />

• For more information about Aboriginal and Tor<strong>res</strong> Strait<br />

Islander seasons, go to .<br />

Assessment focus:<br />

• View the student's completed<br />

copy of page 99 to identify<br />

their understanding of how<br />

Aboriginal and Tor<strong>res</strong> Strait<br />

Islanders use knowledge of<br />

weather and seasons to find<br />

available food sources.<br />

Resources<br />

• Book/Video—Tiddalick the<br />

frog or an online reading<br />

<br />

• Online image—Noongar<br />

seasons (scroll to<br />

bottom of page)<br />

• Digital or enlarged copy<br />

of page 98<br />

• A4 copies of page 98<br />

for students to refer to<br />

• One copy of page 99<br />

for each student<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 6<br />

Lesson plan<br />

Introduction:<br />

1. Read the Dreaming story Tiddalick the frog or view the online reading at . Explain that Dreaming stories were created by Aboriginal and Tor<strong>res</strong> Strait Islander<br />

people to explain their observations of the weather and how things were created. Discuss the<br />

fol<strong>low</strong>ing questions: What did Aboriginal and Tor<strong>res</strong> Strait Islanders believe caused all the water to<br />

dry up? What did they believe caused all the water to return? What season do you think it may have<br />

been when all the water dried up? What season do you think it was when all the water returned?<br />

QP<br />

Development:<br />

2. Revise students' understanding of how weather and seasons affect our daily lives. What are the<br />

seasons? How does knowing about the seasons help us? (It tells us what we need to wear for the<br />

weather, what activities we might be able/not able to do etc.) C<br />

3. View a pictorial rep<strong>res</strong>entation of the Noongar seasons at (scroll to the bottom of the page and click the second blue image in the first row,<br />

entitled 'Noongar seasons'). Count the number of seasons. What do the images of Aboriginal and<br />

Tor<strong>res</strong> Strait Islander seasons show? Look at and discuss the pictu<strong>res</strong> on each season, and read the<br />

text. QP PA<br />

4. Display the pictorial diagram of Kakadu seasons on page 98. This shows another idea of Aboriginal<br />

and Tor<strong>res</strong> Strait Islander seasons. Alternatively, a colour version can be viewed online at . Count the number of seasons. Look at where the wet and dry seasons are.<br />

Discuss the weather for each season and the images of food available. Why would it be important<br />

for Aboriginal and Tor<strong>res</strong> Strait Islander people to know about the animals and bush fruit of each<br />

season? QP PA<br />

5. Keep the pictorial diagram of Kakadu seasons on display or place one copy of the poster in the<br />

centre of each group for students to refer to. Students complete page 99 by drawing a symbol<br />

for the type of weather and images of available food sources for each season. Students should be<br />

encouraged to use intitial and final sounds to match the seasons on the poster to the season words<br />

on page 99. PC PA<br />

Differentiation<br />

• Less capable students may work with more capable students or an adult to orally discuss the<br />

weather and food in each season. They may have words scribed for them to identify the image<br />

drawn.<br />

• More capable students should be encouraged to write words or a sentence underneath their<br />

images to explain the weather and available food sources in each season.<br />

Reflection:<br />

6. Using a think-pair-share, students answer the question Why did Aboriginal and Tor<strong>res</strong> Strait<br />

Islanders need to know about the weather and seasons? PA C<br />

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Lesson 6<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Aboriginal and Tor<strong>res</strong> Strait Islander<br />

Kakadu seasons<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Lesson 6<br />

Draw a picture to show what the weather is like in each Kakadu<br />

season and what food is available.<br />

Season Weather Available food sources<br />

Kedjewk<br />

monsoon<br />

season<br />

Bangkerreng<br />

storm season<br />

Yekke<br />

cool but humid<br />

Wurrkeng<br />

cold weather<br />

Kurrung<br />

hot and dry<br />

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Kunumeleng<br />

Pre-monsoon<br />

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Assessment<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>Science</strong> knowledge<br />

Daily and seasonal changes in our environment affect everyday life (ACSSU004)<br />

Indicators<br />

• Identifies the weather in each season.<br />

• Identifies how the weather in each season affects our clothing.<br />

• Identifies how the weather in each season affects the activities we do.<br />

• Identifies how the weather in each season affects the places we visit.<br />

Differentiation<br />

• Easier option—Page 101 requi<strong>res</strong> students to draw a picture of themselves in each season,<br />

including the weather, a place they may visit, an activity they might do at that place and the clothing<br />

they may wear while doing this activity. The poster on page 82 may be displayed on the interactive<br />

whiteboard to prompt students' thoughts.<br />

• Harder option—Page 102 requi<strong>res</strong> students to read the sentence starters and complete the<br />

sentences using a few words. Students then draw a picture depicting each season. The poster on<br />

page 82 may be displayed on the interactive whiteboard to prompt students' thoughts.<br />

Answers<br />

Page 101 and Page 102<br />

1. Teacher check—summer<br />

Answers may include:<br />

• Weather—sunny and sometimes<br />

partly cloudy<br />

• Places—visiting outdoor places such as<br />

the zoo, the park or the beach<br />

• Activities—building sandcastles, playing<br />

on play equipment, riding a bicycle<br />

or playing sport<br />

• Clothing—light clothing such as singlets,<br />

T-shirts, d<strong>res</strong>ses, shorts, hats, thongs,<br />

sandals or swimwear<br />

2. Teacher check—autumn<br />

Answers may include:<br />

• Weather—sunny, windy and rainy<br />

• Places—visiting outdoor and indoor places<br />

such as the zoo, the park, a shopping centre<br />

or a friend's house<br />

• Activities—flying kites, riding bicycles,<br />

cooking with f<strong>res</strong>hly harvested food or<br />

jumping in puddles<br />

• Clothing—light but warm clothing such as<br />

long-sleeved shirts, cardigans, trousers or<br />

closed-in shoes<br />

3. Teacher check—winter<br />

Answers may include:<br />

• Weather—cloudy, rainy, stormy and snowy<br />

• Places—visiting outdoor and indoor places<br />

such as ski slopes, a movie theatre, a<br />

friend's house or a shopping centre<br />

• Activities—watching movies, having play<br />

dates with friends, building snowmen,<br />

skiing, jumping in puddles and playing in<br />

the rain<br />

• Clothing—thick, warm clothing such as<br />

tracksuit pants, scarves, beanies, gloves,<br />

thick socks, thick jackets/parkas, closed-in<br />

shoes or a raincoat<br />

4. Teacher check—spring<br />

Answers may include:<br />

• Weather—cloudy, rainy, sunny and windy<br />

• Places—visiting outdoor and indoor places<br />

such as the zoo, a farm, a shopping centre<br />

or a friend's house<br />

• Activities—catching insects, smelling newly<br />

blossomed f<strong>low</strong>ers, patting young animals<br />

or having picnics<br />

• Clothing—light but warm clothing such as<br />

long-sleeved shirts, cardigans, trousers or<br />

closed-in shoes<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Assessment<br />

Weather and seasons – 1<br />

Draw a picture of yourself in each season. Draw the weather,<br />

a place you might visit, an activity you might do there and the<br />

clothing you might wear.<br />

1. summer 2. autumn<br />

3. winter 4. spring<br />

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Assessment<br />

Weather and seasons – 2<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

How does each season affect our daily lives?<br />

In summer, the weather is .<br />

I go to .<br />

I like to .<br />

I wear .<br />

In autumn, the weather is .<br />

I go to .<br />

I like to .<br />

I wear .<br />

In winter, the weather is .<br />

I go to .<br />

I like to .<br />

I wear .<br />

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In spring, the weather is .<br />

I go to .<br />

I like to .<br />

I wear .<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

<strong>STEM</strong> project overview<br />

<strong>STEM</strong> project<br />

Make a diorama showing the seasons:<br />

Students work in pairs to design and create a diorama of each season—summer, autumn, winter<br />

and spring. The diorama must show how each season affects our daily lives, including the<br />

clothes we wear, the activities we do and the places we go. Students then create a video of their<br />

diorama, explaining how the weather in each season affects our daily lives.<br />

Concepts overview:<br />

<strong>Science</strong><br />

• Apply knowledge of weather and seasons and how these affect our daily lives, including the<br />

clothes we wear, the activities we do and the places we go.<br />

Technology/Engineering<br />

• Apply the design process to plan, create and evaluate a diorama showing each season and how<br />

it affects our daily lives.<br />

• Select appropriate materials and apply safety procedu<strong>res</strong> while creating.<br />

• Create a digital video of the completed diorama, explaining how the weather in each season<br />

affects our daily lives.<br />

Mathematics<br />

• Use indirect measurement to ensure the diorama for each season will be big enough to fit the<br />

paper dolls and that the paper doll can conduct the activities in each season during the video.<br />

Alternative project ideas:<br />

• As a class, design and create a weather station that can be used by young children to observe<br />

what season it is. Students <strong>res</strong>earch and create simple weather testing devices.<br />

Rain gauge<br />

<br />

Thermometer<br />

<br />

Windmill<br />

<br />

• In pairs, students investigate seasonal food in Australia and food that is available all year round.<br />

Students design and create a pictorial menu for a given season. When complete, four pairs with<br />

different seasons should combine their menus to create a book. Set up a <strong>res</strong>taurant role-play<br />

area and place one menu book in the area for a couple of days before changing to a different<br />

menu.<br />

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<strong>STEM</strong> project<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

SCIENCE CURRICULUM<br />

<strong>Science</strong> Understanding<br />

• Daily and seasonal changes in our environment affect everyday life (ACSSU004)<br />

<strong>Science</strong> as a Human Endeavour<br />

• <strong>Science</strong> involves observing, asking questions about, and describing changes in, objects and events (ACSHE013)<br />

<strong>Science</strong> Inquiry Skills<br />

Questioning and predicting<br />

• Pose and <strong>res</strong>pond to questions about familiar objects and events (ACSIS014)<br />

Planning and conducting<br />

• Participate in guided investigations and make observations using the senses (ACSIS011)<br />

Processing and analysing data and information<br />

• Engage in discussions about observations and rep<strong>res</strong>ent ideas (ACSIS233)<br />

Communicating<br />

• Share observations and ideas (ACSIS012)<br />

TECHNOLOGIES CURRICULUM<br />

Design and Technologies Knowledge and Understanding<br />

• Explore the characteristics and properties of materials and components that are used to produce designed solutions<br />

(ACTDEK004)<br />

Design and Technologies Processes and Production Skills<br />

• Generate, develop and record design ideas through describing, drawing and modelling (ACTDEP006)<br />

• Use materials, components, tools, equipment and techniques to safely make designed solutions (ACTDEP007)<br />

• Use personal preferences to evaluate the success of design ideas, processes and solutions including their care for<br />

environment (ACTDEP008)<br />

• Sequence steps for making designed solutions and working collaboratively (ACTDEP009)<br />

Digital and Technologies Processes and Production Skills<br />

• Recognise and explore digital systems (hardware and software components) for a purpose (ACTDIK001)<br />

Measurement and Geometry<br />

<strong>STEM</strong> curriculum links<br />

MATHEMATICS CURRICULUM<br />

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• Use direct and indirect comparisons to decide which is longer, heavier or holds more, and explain reasoning in<br />

everyday language (ACMMG006)<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Teacher notes<br />

<strong>STEM</strong> project<br />

Page 105<br />

<strong>STEM</strong> project:<br />

Create a diorama to show the weather and seasons of Australia and how each season affects<br />

our daily lives, including the clothes we wear, the activities we do and the places we visit.<br />

Create a video of the diorama to explain how each season affects our daily lives.<br />

Estimated duration: 4 weeks<br />

1. Introduce the project<br />

• Read the problem on page 106 to<br />

students.<br />

• Watch the online video Peppa Pig pen<br />

pal at .<br />

This video clip shows Peppa Pig being<br />

introduced to what a penpal is and<br />

organising to write letters to a penpal in<br />

France, who eventually visits Peppa Pig’s<br />

house.<br />

• As a class, discuss if any students have<br />

had a penpal before or if they would be<br />

inte<strong>res</strong>ted in having a penpal. Note: If<br />

students are inte<strong>res</strong>ted in having a penpal,<br />

go to to explore penpals around the<br />

world (kid-friendly).<br />

• Read the task and the important<br />

information on page 106 to students.<br />

Show students the cardboard paper doll<br />

templates and clothing on pages 108–110.<br />

Students will need to make sure their<br />

paper doll character can demonstrate the<br />

activities in each season’s diorama for the<br />

video.<br />

2. Find out information<br />

• Provide time for students to find out<br />

information about seasonal changes in<br />

their local area.<br />

— Place a copy of page 82 on the<br />

interactive whiteboard for students to<br />

refer to.<br />

— Provide a selection of nonfiction and<br />

fiction texts for students to look at,<br />

ensuring that only factual information is<br />

transferred.<br />

— Talk to people that live in the area<br />

about their favourite activities to do,<br />

places to go and clothes to wear in<br />

each season.<br />

3. Design, plan and manage <strong>res</strong>ources<br />

• Students plan their diorama and create a<br />

diagram of it, labelling the seasons, the<br />

weather and things that can be seen in the<br />

environment. For each season's diagram,<br />

they should also draw/write the place that<br />

will be visited, the activities that will be<br />

done and the clothes that will be worn.<br />

• Students collect the materials<br />

necessary. Remind them about <strong>res</strong>ource<br />

management, conserving <strong>res</strong>ources and<br />

ensuring that <strong>res</strong>ources are shared.<br />

4. Create<br />

• Students choose which materials they will<br />

use to make the featu<strong>res</strong> in each season’s<br />

diorama.<br />

• Students create their diorama according<br />

to their diagram.<br />

5. Evaluate and refine<br />

• Students evaluate their diorama to<br />

ensure that all the criteria on page 106 is<br />

included.<br />

• Students make any adjustments necessary<br />

to their designed product.<br />

6. Communicate<br />

• Students create a video of their diorama<br />

using an iPad® application or a digital<br />

camera, explaining each season in<br />

Australia and how it affects our daily lives.<br />

• Display the dioramas and the iPad® videos<br />

around the classroom and conduct a<br />

gallery walk for students to view others'<br />

designs and videos.<br />

• Students complete the self-assessment<br />

of how well they participated and<br />

cooperated within the group.<br />

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<strong>STEM</strong> project<br />

The problem<br />

Project brief<br />

Louise and Joseph have made a new friend that lives<br />

overseas. She is a penpal. Louise and Joseph write letters<br />

and emails to her about their favourite activities, the<br />

places they visit and what it is like to live in Australia.<br />

Louise and Joseph want to give their penpal a<br />

handmade gift to show her what it is like to live in<br />

Australia. They hope that one day she will come and visit.<br />

How can Louise and Joseph show their penpal what it<br />

is like to live in Australia at different times of the year?<br />

Important things you need to do!<br />

• You must work in pairs.<br />

• You must make a tissue<br />

box diorama for each season.<br />

• It must include the types of weather<br />

that might be seen in each season.<br />

The task<br />

• It must include Louise and the places<br />

she might visit, the activities she might<br />

do and the clothing she might wear for<br />

each season.<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Hello!<br />

On this postcard is a picture<br />

of the Sydney Opera House. It<br />

is really close to our home and<br />

is one of our favourite tourist<br />

attractions to visit.<br />

From Louise and Joseph<br />

• Design and create a diorama that Louise<br />

and Joseph can send their penpal to<br />

show the places they might visit, the<br />

activites they might do and the clothing<br />

they might wear for each season.<br />

• Create a video of the diorama, explaining<br />

what each season is like in Australia.<br />

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• The video must include an explanation<br />

of each season, including how each<br />

season affects our daily lives.<br />

10¢<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

<strong>STEM</strong> project<br />

Project steps<br />

Find out information<br />

Learn about the weather and seasons in your local area.<br />

Talk to people that live in your area about weather/seasons.<br />

Read books about weather and seasons.<br />

Look at pictu<strong>res</strong> and videos of weather in different seasons.<br />

Learn about how weather and seasons affect our daily lives.<br />

Look at the different clothes you wear in each season.<br />

Think about the activities that you do in each season.<br />

Think about the places that you visit in each season.<br />

Design, plan and collect <strong>res</strong>ources<br />

Plan your diorama.<br />

Create<br />

Draw each season, including the weather and the environment.<br />

Draw/write how each season affects our daily lives, including<br />

the clothes we wear, the activities we do and the places we visit.<br />

Collect the materials you need.<br />

Create your diorama.<br />

Choose which materials to use for each part of the diorama.<br />

Make the diorama.<br />

Check and make changes<br />

Check that it is correct and you are happy with it.<br />

Check that all the important things on page 106 were done.<br />

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Check that both partners are happy with it.<br />

Communication<br />

Use an iPad ® to record a video.<br />

Explain each season and how it affects our daily lives.<br />

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<strong>STEM</strong> project<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

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DAILY AND SEASONAL CHANGES<br />

<strong>STEM</strong> project<br />

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<strong>STEM</strong> project<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

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Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

<strong>STEM</strong> project<br />

Self – assessment<br />

Student name:<br />

Date:<br />

<strong>STEM</strong> project: Make a diorama showing the seasons<br />

I listened to others.<br />

I gave ideas.<br />

I helped to find out information.<br />

I helped collect materials.<br />

I helped make the plan.<br />

I helped make the design.<br />

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The project was: easy hard<br />

I liked ...<br />

.<br />

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<strong>STEM</strong> project<br />

Earth and space sciences<br />

DAILY AND SEASONAL CHANGES<br />

Group assessment rubric<br />

CRITERIA<br />

Group members:<br />

Project task:<br />

Create a diorama to show the weather and seasons of Australia and how each season<br />

affects our daily lives, including the clothes we wear, the activities we do and the places<br />

we visit. Create a video of the diorama to explain how each season affects our daily lives.<br />

<strong>Science</strong> knowledge<br />

Creates diorama showing how the weather in each season affects the clothes we wear,<br />

the activities we do and the places we visit.<br />

<strong>Science</strong> skills<br />

Creates a labelled diagram of each season, including the weather and environment,<br />

the clothing we wear, the activities we do and the places we visit.<br />

Plans, conducts and evaluates an investigation to find out how seasons in their local<br />

area affect their daily lives.<br />

Communicates science understanding correctly, clearly and concisely using<br />

a digital video.<br />

Technology/Engineering skills<br />

Plans and designs a diorama of each season, including the weather and environment,<br />

the clothing we wear, the activities we do and the places we visit.<br />

Investigates and uses a range of materials to rep<strong>res</strong>ent featu<strong>res</strong> in each season.<br />

Creates a diorama of each season using materials and tools safely.<br />

Evaluates designed products to ensure they meet the criteria and makes any<br />

necessary changes.<br />

Plans and creates a digital video, using an iPad® or digital camera, to explain how each<br />

season affects our daily lives.<br />

Mathematics<br />

Uses informal measurement to ensure the diorama for each season can fit the paper doll.<br />

Group skills<br />

All group members contributed fairly and appropriately.<br />

All group members collaborated and communicated effectively.<br />

Group members were able to <strong>res</strong>olve conflicts independently.<br />

1 = Be<strong>low</strong> expectation<br />

2 = Meeting expectation<br />

3 = Above expectation<br />

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A <strong>STEM</strong> APPROACH<br />

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<strong>STEM</strong> project<br />

Physical sciences<br />

HOW THINGS MOVE<br />

movement<br />

move<br />

fly<br />

walk<br />

swim<br />

slither<br />

climb<br />

Keywords<br />

jump<br />

crawl<br />

slide<br />

roll<br />

bounce<br />

spin<br />

motion<br />

position<br />

speed<br />

force<br />

push<br />

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pull<br />

ramp<br />

surface<br />

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Unit overview<br />

Physical sciences<br />

HOW THINGS MOVE<br />

The way objects move depends on a variety of factors, including their size and shape<br />

(ACSSU005)<br />

Lesson 1<br />

How do humans and<br />

other animals move?<br />

Lesson 2<br />

How do objects move?<br />

Can they move by<br />

themselves?<br />

Lesson 3<br />

How does the size and<br />

shape of an object<br />

change how it rolls?<br />

Lesson 4<br />

How does the size and<br />

shape of an object<br />

change how it slides?<br />

Lesson 5<br />

How does the size<br />

and shape of an<br />

object change how it<br />

bounces?<br />

Lesson 6<br />

How does the size and<br />

shape of an object<br />

change how it spins?<br />

Summative assessment<br />

<strong>STEM</strong> project<br />

Roll down the racetrack<br />

Students use their prior knowledge of living things to<br />

predict how humans and animals move. They investigate<br />

the body featu<strong>res</strong> animals use to move in different ways and<br />

sort animal cards into groups according to how they move.<br />

Students watch an online video that explains how animals<br />

move in simple terms.<br />

Students reflect on how humans and animals move to predict<br />

if objects move in the same way. Students are introduced<br />

to the terms 'motion', 'position', 'speed' and 'force' using<br />

simple definitions and word wall cards. They then investigate<br />

a range of objects to identify how they move.<br />

Students identify objects that move using a rolling motion.<br />

They predict how the size and shape of an object affects the<br />

speed and distance that it rolls. They conduct an experiment<br />

to compare two objects rolling down a ramp and record their<br />

observations using a simple table.<br />

Students identify objects that can slide along a smooth<br />

surface. They predict how the size and shape of an object<br />

affects the speed and distance that it slides. They conduct an<br />

experiment to compare two objects sliding down a ramp and<br />

record their observations using a simple table.<br />

Students identify objects that bounce and the actions<br />

needed to put objects into a bouncing motion. They predict<br />

how the size and shape of a ball affects the height it bounces<br />

to and the direction it bounces. They conduct an experiment<br />

to compare two different balls by dropping each ball from<br />

a controlled height at the same time, discussing their<br />

observations as they conduct the experiment.<br />

Students identify toys that spin and the actions needed to<br />

put objects into a spinning motion. They predict how the<br />

size and weight of cardboard tube spinners affects the<br />

speed and duration at which they spin. They conduct an<br />

experiment to compare two different-sized or weighted<br />

cardboard tubes, using a controlled flick to get the object<br />

in motion, discussing their observations as they conduct the<br />

experiment.<br />

Students demonstrate their knowledge of different types of<br />

motion by identifying objects that roll, slide, bounce and spin.<br />

Pages<br />

116–119<br />

120–123<br />

124–127<br />

128–131<br />

132–133<br />

134–135<br />

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Students create a racetrack for a toy sports car and a toy fire<br />

truck to roll down at the same time. They will then create a<br />

video describing the shape, size and weight of each vehicle<br />

and showing which vehicle moved faster/s<strong>low</strong>er and which<br />

travelled further.<br />

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139–145<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Unit overview<br />

Curriculum scope and sequence<br />

SCIENCE UNDERSTANDING<br />

The way objects move depends on a variety of factors, including<br />

their size and shape (ACSSU005)<br />

SCIENCE AS A HUMAN ENDEAVOUR<br />

<strong>Science</strong> involves observing, asking questions about, and describing<br />

changes in, objects and events (ACSHE013)<br />

SCIENCE INQUIRY SKILLS<br />

Questioning and predicting<br />

Pose and <strong>res</strong>pond to questions about familiar objects and events<br />

(ACSIS014)<br />

Planning and conducting<br />

Participate in guided investigations and make observations using<br />

the senses (ACSIS011)<br />

Processing and analysing data and information<br />

Engage in discussions about observations and rep<strong>res</strong>ent ideas<br />

(ACSIS233)<br />

Communicating<br />

Lesson<br />

1 2 3 4 5 6 Assessment<br />

<strong>STEM</strong><br />

project<br />

3 3 3 3 3 3 3 3<br />

3 3 3 3 3 3 3<br />

3 3 3 3 3 3 3<br />

3 3 3 3 3 3 3<br />

3 3 3 3 3 3 3<br />

Share observations and ideas (ACSIS012) 3 3 3 3 3 3 3 3<br />

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Lesson 1<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How do humans and other animals move?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students identify types of human and animal movement<br />

and observe animals moving in different ways using<br />

online videos.<br />

Technology/Engineering/Mathematics links:<br />

• viewing online videos<br />

• participating in a brainstorm using an online<br />

mind-mapping tool<br />

• participating in an online interactive activity<br />

to group animals by how they move<br />

• taking a digital photograph of sorted cards as evidence<br />

of their learning<br />

Background information<br />

• Humans and animals perform different types of movement<br />

depending on their body featu<strong>res</strong> and the conditions of<br />

their environment. They move to meet their basic needs.<br />

• Students should be familiar with most of the types of<br />

movement used within the lesson. It may be helpful<br />

to explain the difference between walking, running<br />

and crawling, and the difference between sliding and<br />

slithering.<br />

• Answers to the sorting activity:<br />

— Animals that fly—bird, bee, butterfly<br />

— Animals that walk/run—dog, cat, spider<br />

— Animals that swim—fish, dolphin, ray<br />

— Animals that slither—worm, snake, snail<br />

— Animals that climb—koala, monkey, sloth<br />

— Animals that jump—kangaroo, rabbit, frog<br />

— Animals that crawl—tortoise, crocodile, caterpillar<br />

— Animals that slide—walrus, seal, penguin<br />

Assessment focus:<br />

• Use the brainstorm in the<br />

Introduction and the Reflection<br />

to assess the student's prior<br />

knowledge of human and<br />

animal movements.<br />

• Use the digital photograph of<br />

the student's sorted groups<br />

as evidence of learning for<br />

portfolios or student workbooks.<br />

Resources<br />

• Online mind-mapping tool<br />

<br />

• Online video —How animals<br />

move <br />

• Online interactive video–<br />

Ways animals move – quiz<br />

<br />

• Copy of animal cards on<br />

pages 118 and 119 for each<br />

pair. These should be cut<br />

and laminated prior to the<br />

lesson (see Differentiation<br />

for each set)<br />

• Digital camera or iPad®<br />

(optional)<br />

• Online video—Sesame Street<br />

– Watch these baby animals<br />

move at <br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 1<br />

Lesson plan<br />

Introduction:<br />

1. Using an online mind-mapping tool such as , write the question<br />

How do humans and other animals move? in the centre box. Read the question aloud to students<br />

and al<strong>low</strong> 30 seconds of silence for them to think about all the different ways of movement.<br />

Conduct a brainstorm with students to identify their ideas and add child nodes to the mind map to<br />

list students' ideas. Alternatively, conduct this activity on a large piece of paper. QP<br />

Development:<br />

2. View the video How animals move at . This video explains different<br />

types of movement with examples of how humans and insects demonstrate each action. Pause the<br />

video after each action is demonstrated by the hosts and ask students to demonstrate the action on<br />

the spot. Which actions could you do easily? Which actions couldn’t you do? (e.g. flying) What do<br />

humans need to al<strong>low</strong> them to move through the air? PC PA<br />

3. Play along with the quiz on the Ways animals move video at .<br />

Encourage students to describe which body part they use to move and why the statements<br />

about each animal are true or false. Alternatively, use some of the pre-prepared animal cards<br />

on page 118.<br />

4. Divide the class into pairs and give each pair a set of the pre-prepared animal cards and headings<br />

from page 118 and the top half of page 119. Read the headings to students and encourage them<br />

to look at the initial sounds in each word to help them read the words independently during the<br />

activity. Students work together to sort the animals by how they move. Students then take a digital<br />

photograph of their sorted groups using an iPad® or digital camera. These can be printed and<br />

used as evidence. PC PA<br />

Differentiation<br />

• Less capable students may be limited to using the animal cards on page 118. These cards only<br />

focus on flying, swimming, walking/running and slithering, as demonstrated in the interactive<br />

game Grouping animals (sorting animals – how they move).<br />

• More capable students may be encouraged to use all animal movement cards on pages 118<br />

and 119. These cards include harder-to-differentiate groups such as identifying if animals walk/<br />

run or crawl. Students will need to know the meaning of these three words.<br />

5. Watch the video Sesame Street – Watch these baby animals move at .<br />

This video explains how other animals move, including mammals, birds, reptiles and fish.<br />

Reflection:<br />

6. Re-visit the online mind-mapping tool and read through each type of movement that was<br />

suggested during the Introduction activity. As each type of movement is suggested, students<br />

should name an animal that uses that type of movement in its everyday life. Add any further types<br />

of animal movement that students suggest. Note: The animal movement cards from the sorting<br />

activity can be used to prompt students' ideas if necessary. PA C<br />

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Lesson 1<br />

Animal movements – 1<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Animals that fly<br />

Animals that walk or run<br />

Animals that swim<br />

Animals that slither<br />

dog fish bird<br />

snake dolphin bee<br />

cat snail spider<br />

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butterfly worm ray<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Animal movements – 2<br />

Lesson 1<br />

Animals that climb<br />

Animals that jump<br />

kangaroo koala rabbit<br />

sloth frog monkey<br />

Animals that crawl<br />

Animals that slide<br />

tortoise seal crocodile<br />

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walrus penguin caterpillar<br />

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119


Lesson 2<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How do objects move? Can they move by themselves?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students observe how everyday objects move from one<br />

place to another, including rolling, sliding, spinning and<br />

bouncing.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including online videos<br />

• identifying and exploring how objects use forces to move<br />

• participating in a class vote by answering yes or no to<br />

a given question<br />

• using mathematical language to describe the size and<br />

weight of objects and the speed and distance at which<br />

they move<br />

Background information<br />

• Objects move when they are acted upon by a force. This<br />

force can be an environmental factor such as gravity or a<br />

force exerted by human activity.<br />

• For simple explanations of motion, position, speed and<br />

force with images as examples, see page 122.<br />

• For the purpose of this unit, the focus will be on how<br />

things move by rolling, sliding, bouncing and spinning,<br />

and how size, shape and weight affect their movement.<br />

• Rolling means to move in a continuous motion with<br />

constant contact along a surface, turning over and over.<br />

• Sliding means to move in a continuous motion with<br />

constant contact between one surface of an object and<br />

another smooth surface.<br />

• Bouncing means to move in a continuous motion making<br />

contact with the ground for a short period of time before<br />

rebounding into the air.<br />

• Spinning means to move in a continuous circular turning<br />

motion with constant contact between the object and a<br />

smooth surface, either on a spot or along a path.<br />

Assessment focus:<br />

• Use page 123 to assess the<br />

student's understanding of how<br />

objects move, including rolling,<br />

sliding, bouncing and spinning.<br />

Resources<br />

• Online video—Force and<br />

motion at <br />

• A copy of the cards on<br />

page 122. These may<br />

be coloured, cut and<br />

laminated prior to the<br />

lesson<br />

• A selection of objects that<br />

move in different ways,<br />

such as a toy car, a tennis<br />

ball, a wooden block, a<br />

fidget spinner or spinning<br />

top, and a hula hoop<br />

• A copy of page 123 for<br />

each student<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 2<br />

Lesson plan<br />

Introduction:<br />

1. Take the class outside to conduct a five-minute movement relay with the students. Divide the class<br />

into teams of six and place three students from each team at one end of the relay and the other<br />

three students at the other end. Call out a type of movement, such as walking, running, crawling,<br />

hopping or jumping. Students must perform that movement during the relay until another type of<br />

movement is called. Alternatively, these movements can be performed on the spot in a classroom if<br />

there is sufficient space. PC<br />

Development:<br />

2. Watch the video Force and motion at . This video provides simple<br />

definitions of the words 'motion', 'position' and 'speed' and explains different types of motion (up,<br />

down, forward, backward, round and round, and zigzag) and different ways we can get stationary<br />

objects in motion (push, pull, hit it with another object, and b<strong>low</strong> on it). Alternatively, use the word<br />

wall posters on page 122 and read the definitions to students.<br />

3. Using the word wall posters on page 122, reinforce the words and concepts. For example, ‘When<br />

objects are moving they are in motion’, ‘Objects can move along different paths while in motion’,<br />

‘Objects move from one position to another’, ‘Objects move at different speeds’ and ‘Objects use<br />

different forces to move’. Note: If the posters were used in Step 2, skip this step.<br />

4. Display a selection of objects that roll, slide, bounce and spin. Some examples are listed in the<br />

Resources on page 120. Ask students Can these objects move on their own the same way humans<br />

and animals can? Conduct a class Yes/No vote and record the tally on the whiteboard. QP<br />

5. Divide the class into groups of five or six and give each group a set of five objects that move<br />

differently. Some examples are listed in the Resources section on page 120. Students explore how<br />

each object moves and individually record their observations by writing 'yes' or 'no' in each column<br />

on page 123. PC PA<br />

Differentiation<br />

• Less capable students may place a tick or cross in each column and may be assisted by an adult<br />

to read each question.<br />

• More capable students may be encouraged to complete page 123 then find additional objects<br />

and see how they move. Students can record their objects on the back of page 123.<br />

Reflection:<br />

6. Name a type of movement (e.g. roll, slide, bounce, spin, walk, crawl, fly, fall) and, using a think-pairshare,<br />

students decide if an object, an animal, or both objects and animals can move in this way.<br />

Students should be encouraged to provide examples to justify their decision. PA C<br />

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121


Lesson 2<br />

Physical sciences<br />

HOW THINGS MOVE<br />

FORWARD<br />

in<br />

Motion<br />

Motion is movement from one place to another.<br />

BACKWARD<br />

Word wall posters<br />

UP<br />

Position<br />

Position is the place where something is.<br />

Speed<br />

Speed is how fast or s<strong>low</strong> something moves.<br />

Force<br />

DOWN<br />

ROUND<br />

AND<br />

ROUND<br />

IN ON UNDER NEXT TO BEHIND IN FRONT OF BETWEEN<br />

push<br />

on<br />

under next to behind in front of<br />

SLOW<br />

A force is needed to make something move.<br />

fall<br />

between<br />

ZIGZAG<br />

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pull<br />

throw<br />

kick<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 2<br />

How do these objects move?<br />

Does it roll?<br />

Does it slide?<br />

Does it<br />

bounce?<br />

Does it spin?<br />

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Draw the<br />

object.<br />

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Lesson 3<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How does the size and shape of an object change how it rolls?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students observe how the size and shape of everyday<br />

objects affect how they roll from one place to another<br />

by placing objects on a ramp.<br />

Technology/Engineering/Mathematics links:<br />

• viewing online videos<br />

• identifying and exploring how different-sized and shaped<br />

objects roll<br />

• participating in a class vote by answering given questions<br />

• using hefting to determine which object in a pair is heavier<br />

and which is lighter<br />

• using mathematical language to describe the size and<br />

weight of objects and the speed and distance at which<br />

they move<br />

Background information<br />

• Rolling means to move in a continuous motion with<br />

constant contact along a surface, turning over and over.<br />

• Objects that roll often have wheels or rounded surfaces,<br />

such as cars or balls. When enough force is applied, other<br />

objects such as a dice will roll, but will often lose contact<br />

with the surface for brief periods of time.<br />

• It is difficult for young children to accurately determine<br />

factors that affect rolling as, scientifically, it involves massdensity<br />

ratios of each object, the speed at which they are<br />

travelling, the distance they are travelling and the type of<br />

surface they are travelling on.<br />

• For the purpose of this unit, students should discover<br />

that heavy objects will roll faster and further down a<br />

ramp than similar-sized and shaped objects, and that<br />

big objects may roll faster or s<strong>low</strong>er down a ramp than a<br />

small object, depending on the mass and shape of each<br />

object.<br />

• For instructions on how to construct a cereal box ramp,<br />

go to .<br />

Assessment focus:<br />

• Use page 127 to assess the<br />

student's observation and<br />

recording skills.<br />

• Use observation records<br />

to monitor the student's<br />

understanding of how the<br />

size and shape of an object<br />

affects how it rolls during the<br />

discussion in the Reflection<br />

section.<br />

Resources<br />

• Access to a playground<br />

slide or an online image of a<br />

playground slide<br />

• A small toy car for each<br />

group<br />

• A sandpit truck or other<br />

large toy truck for each<br />

group<br />

• A tennis ball for each group<br />

• A basketball for each group<br />

• A large roll of thick masking<br />

tape for each group<br />

• A small roll of thin sticky tape<br />

for each group<br />

• A cereal box ramp for each<br />

group. These will need to be<br />

made prior to the lesson to<br />

save time. These ramps will<br />

be re-used in Lesson 4<br />

• Digital copy of page 126 for<br />

display on the interactive<br />

whiteboard<br />

• A copy of page 127 for<br />

each student<br />

• Online video – Do large<br />

balls roll faster and further<br />

than small balls? at <br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 3<br />

Lesson plan<br />

Introduction:<br />

1. Take the class outside and, using a tennis ball, conduct a five-minute ramp introduction using<br />

the playground slide. Alternatively, display an online image of a playground slide. Determine<br />

students' prior knowledge of ramps by asking How do objects move down ramps? Do they<br />

slide? Do they spin? Do they roll? Do they bounce? Demonstrate an object rolling, bouncing and<br />

spinning down the slide using the tennis ball and demonstrate sliding by asking all students to<br />

slide down the slide. Note: This lesson will focus only on rolling. The other types of movement will<br />

be covered in Lessons 4–6. QP<br />

Development:<br />

2. Display a small toy car, a sandpit truck or other large toy truck, a tennis ball, a basketball, a large<br />

roll of thick masking tape and a small roll of thin sticky tape. How do these objects move? Why do<br />

you think these objects roll? Explain that objects often roll if they have wheels or rounded faces.<br />

QP PA<br />

3. Display a digital copy of page 126. Point to the two objects in the first row and ask Which object<br />

will roll faster? Conduct a class vote to tally students' predictions about which object they think<br />

will roll faster. Repeat the question for all pairs of objects. Conduct another vote to record<br />

students predictions about which object in each pair will roll further and record the tally at the<br />

bottom of page 126. QP<br />

4. Give each group a cardboard box ramp, a small toy car, a sandpit truck or other large toy truck,<br />

a tennis ball, a basketball, a large roll of thick masking tape and a small roll of thin sticky tape.<br />

Students experiment to find how the size and shape of each object affects how they roll by<br />

placing two objects at the top of their ramp and letting go at the same time. Students should be<br />

encouraged to try the same two objects multiple times to ensure their observations are correct.<br />

Using page 127, students individually record their observations by circling the object that is<br />

heavier, lighter, faster and travelled the furthest. PC PA<br />

Differentiation<br />

• Less capable students may work as a group to complete page 127 or can work with an adult<br />

to test each pair of objects.<br />

• More capable students may be encouraged to complete page 127 then find additional<br />

objects and see how their size and shape affect how they roll. Students can record their<br />

objects on the back of page 127.<br />

5. Watch the video at , which shows how balls of different sizes<br />

and weights roll down a ramp. Discuss which object rolled the fastest and which object rolled<br />

the furthest. PA<br />

Reflection:<br />

6. Using a think-pair-share, ask students to discuss the question What things change how an object<br />

rolls? Students should be encouraged to think about the size, the weight and the surface that it<br />

is rolling on. Note: Students are only required to know that objects move differently. Moving on<br />

different surfaces is covered in the science curriculum for Year 4. PA C<br />

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Lesson 3<br />

Physical sciences<br />

HOW THINGS MOVE<br />

How size and shape affect rolling – 1<br />

Which object will roll faster?<br />

Which object will roll further?<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 3<br />

How size and shape affect rolling – 2<br />

Which object<br />

was heavier?<br />

Which object<br />

was lighter?<br />

Which object<br />

moved faster?<br />

Which object<br />

moved further?<br />

© R.I.C. Publications<br />

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Test the<br />

two objects.<br />

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127


Lesson 4<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How does the size and shape of an object change<br />

how it slides?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating<br />

C<br />

<strong>Science</strong> as a Human Endeavour :<br />

• Students observe how the size and shape of everyday<br />

objects affect how they slide from one place to<br />

another by placing objects on a ramp.<br />

Technology/Engineering/Mathematics links:<br />

• viewing online videos<br />

• identifying and exploring how different-sized<br />

and shaped objects slide<br />

• participating in a class vote by answering given<br />

questions<br />

• using hefting to determine which object in a pair<br />

is heavier and which is lighter<br />

• using mathematical language to describe the size<br />

and weight of objects and the speed and distance<br />

at which they move<br />

Background information<br />

• Sliding means to move in a continuous motion<br />

with constant contact between one surface of an<br />

object and another smooth surface.<br />

• Objects that slide often have flat surfaces, such as<br />

boxes or beanbags. Objects with smooth surfaces<br />

slide more easily than those with rough surfaces.<br />

• It is difficult for young children to accurately<br />

determine factors that affect sliding as,<br />

scientifically, it involves mass-density ratios of each<br />

object, the speed at which they are travelling, the<br />

distance they are travelling and the type of surface<br />

they are travelling on.<br />

• For the purpose of this unit, students should<br />

discover that heavy objects will slide faster and<br />

further down a ramp than similarly-sized and<br />

shaped objects, and that big objects may slide<br />

faster or s<strong>low</strong>er down a ramp than a small object,<br />

depending on the weight and shape of each<br />

object.<br />

Assessment focus :<br />

• Use page 131 to assess the student's<br />

observation and recording skills.<br />

• Use observation records to monitor the<br />

student's understanding of how the<br />

size and shape of an object affects how<br />

it slides during the discussion in the<br />

Reflection section.<br />

Resources<br />

• Cardboard ramps (created in<br />

Lesson 3) for each group<br />

• A small rectangular wooden<br />

construction block for each group<br />

• A large rectangular wooden<br />

construction block for each group<br />

• An empty tissue box for each group<br />

• A full tissue box for each group<br />

• A small teddy bear for each group<br />

• A toy doll for each group<br />

• A plastic sandpit scoop for each<br />

group<br />

• A plastic sandpit sieve for each<br />

group<br />

• A beanbag for each group<br />

• A plastic sports cone for each<br />

group<br />

• Digital copy of page 130 for display<br />

on the interactive whiteboard<br />

• A copy of page 131 for each<br />

student<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 4<br />

Lesson plan<br />

Introduction:<br />

1. Place a cardboard ramp used during Lesson 3 at the front of the class. Ask students If I placed two<br />

objects at the top of this ramp, which types of motion could they use to travel down the ramp? (They<br />

can roll, slide, spin or bounce.) What causes objects to roll at different speeds and for different<br />

distances? (Their size and shape.) PA C<br />

Development:<br />

2. Display a small rectangular wooden construction block, a large rectangular wooden construction<br />

block, an empty tissue box, a full tissue box, a small teddy bear, a toy doll, a plastic sandpit scoop,<br />

a plastic sandpit sieve, a beanbag and a plastic sports cone. How do these objects move? (They<br />

slide.) Why do you think these objects slide? Explain that objects often slide if they have a flat<br />

surface. QP PA<br />

3. Display a digital copy of page 130. Point to the two objects in the first row and ask Which object will<br />

slide faster? Conduct a class vote to tally students' predictions about which object they think will<br />

slide faster. Repeat the question for all pairs of objects. Conduct another vote to record students'<br />

predictions about which object in each pair will slide further and record the tally at the bottom of<br />

page 130. QP<br />

4. Divide the class into groups of five or six and give each group a ramp (created in Lesson 3), a<br />

small rectangular wooden construction block, a large rectangular wooden construction block, an<br />

empty tissue box, a full tissue box, a small teddy bear, a toy doll, a plastic sandpit scoop, a plastic<br />

sandpit sieve, a beanbag and a plastic sports cone. Students experiment to find how size and<br />

shape affect how objects slide by placing two objects at the top of their ramp and letting go at the<br />

same time. Students should be encouraged to try the same two objects multiple times to ensure<br />

their observations are correct. Using page 131, students individually record their observations by<br />

circling the object that is heavier, lighter, faster and travelled the furthest. PC PA<br />

Differentiation<br />

• Less capable students may work as a group to complete page 131 or can work with an adult to<br />

test each pair of objects.<br />

• More capable students may be encouraged to complete page 131 then find additional objects<br />

and see how their size and shape affect how they slide. Students can record their objects on the<br />

back of page 131.<br />

Reflection:<br />

5. Using a think-pair-share, students discuss the question What things change how an object slides?<br />

Students should be encouraged to think about an object's size, weight and the surface that it<br />

is sliding on. Note: Students are only required to know that objects move differently. Moving on<br />

different surfaces is covered in the science curriculum for Year 4. PA C<br />

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Lesson 4<br />

Physical sciences<br />

HOW THINGS MOVE<br />

How size and shape affect sliding – 1<br />

Which object will slide faster?<br />

Which object will slide further?<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

How size and shape affect sliding – 2<br />

Lesson 4<br />

Which object<br />

was heavier?<br />

Which object<br />

was lighter?<br />

Which object<br />

moved faster?<br />

Which object<br />

moved further?<br />

© R.I.C. Publications<br />

Low <strong>res</strong>olution display copy<br />

Test the<br />

two objects.<br />

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131


Lesson 5<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How does the size and shape of an object change<br />

how it bounces?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students observe how the size and shape of different<br />

balls affect the way they bounce by dropping balls from a<br />

controlled height.<br />

Technology/Engineering/Mathematics links:<br />

• viewing digital texts, including online animations<br />

• identifying and exploring how different-sized and shaped<br />

balls bounce<br />

• participating in a class vote by answering yes or no to<br />

a given question<br />

• using mathematical language to describe the size and<br />

weight of objects and the speed and distance at which<br />

they move<br />

Background information<br />

• Bouncing means to move in a continuous motion,<br />

making contact with the ground for a short period of<br />

time before rebounding into the air.<br />

• Objects that bounce are often made of plastic or rubber<br />

containing air inside, such as balls. Other objects made<br />

from different materials may also bounce but may not<br />

contain the energy to continue bouncing.<br />

• It is difficult for young children to accurately determine<br />

factors that affect bouncing as, scientifically, it involves<br />

mass-density ratios of each object, the speed at which<br />

they are travelling, the distance they are travelling, the<br />

type of surface they are bouncing on and the amount of<br />

gravity and air <strong>res</strong>istance acting on the object.<br />

• For the purpose of this unit, students should discover<br />

that two objects of different weights will fall at the same<br />

rate from a given position, regardless of their mass,<br />

but will bounce to a different height. Students should<br />

also discover that different-shaped balls will bounce in<br />

different directions.<br />

Assessment focus:<br />

• Use observation records to<br />

monitor the student's planning<br />

and conducting skills during the<br />

experiments and to monitor the<br />

student's understanding of how<br />

the size and shape of an object<br />

affect how it slides during the<br />

discussion in the Reflection section.<br />

Resources<br />

• Online animation—Bouncing<br />

ball at <br />

• Basketball court access<br />

• A basketball for each group<br />

• A tennis ball for each group<br />

• A golf ball for each group<br />

• A small foam or PVC ball for<br />

each group<br />

• An AFL football for each group<br />

• A beach ball for each group<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 5<br />

Lesson plan<br />

Introduction:<br />

1. Watch the short animation that demonstrates bouncing at . Ask<br />

students What type of motion are they using? (How are they moving?) Did they start and finish<br />

bouncing in the same position (place)? What speed did they bounce? (Did they bounce fast or<br />

s<strong>low</strong>?) Can objects really start bouncing without any help from humans? What happened to the sack<br />

at the end of the animation? What do we need to be careful of when we are bouncing objects high<br />

into the air? QP PA<br />

Development:<br />

2. Take students to a basketball court and divide the class into groups of six. Conduct a five-minute<br />

movement relay by placing three students from each group at one end of the basketball court<br />

at the remaining three students at the halfway line. Give each player in a team a different ball,<br />

including a basketball, a tennis ball, a golf ball, a small foam or PVC ball, an AFL football and a<br />

beach ball. Students take turns bouncing their ball to the other side before tagging the next player.<br />

When all players have had one turn they should sit down to show they are finished. Repeat the<br />

activity a few times with students switching the ball they use with another player each time. PC<br />

3. Discuss which balls were easier to bounce and which were harder to bounce. Why do you think the<br />

balls that were easier to bounce were so? Why do you think the balls that were harder to bounce<br />

were so? Discuss that the size, shape and weight of an object and the material it is made of affect<br />

how it bounces. PA<br />

4. Conduct a show-of-hands vote to identify students' understanding of how size and shape affect<br />

how high a ball bounces. Will a heavy ball like a basketball bounce higher or <strong>low</strong>er than a light ball<br />

like a tennis ball? Will a round ball like a basketball bounce higher or <strong>low</strong>er than an oval – shaped<br />

ball like an AFL football? Will two balls the same size and shape bounce to the same height? QP<br />

5. In their groups, students experiment to find how the size and shape of a ball affect the height it<br />

bounces to by having two students drop a ball from the same height. The other group members<br />

should be encouraged to make sure the balls start at the same height, that both students drop<br />

their ball at the same time without any extra force being applied, and should judge which<br />

ball bounces higher. Students should also be encouraged to test each combination of balls<br />

multiple times to ensure their observations are correct. Repeat the activity testing different ball<br />

combinations. Note: Remind students that balls should not be bounced above head height to avoid<br />

injuries as shown by the animation. PC<br />

Differentiation<br />

• Less capable students may be grouped together and may work with an adult to test each pair<br />

of objects and discuss the <strong>res</strong>ults. Students may also have a starting height marked out for them<br />

using tape along a wall or pole.<br />

• More capable students may be grouped together and encouraged to test three objects at the<br />

same time to compare the heights of each test.<br />

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Reflection:<br />

6. Using a think-pair-share, students discuss the question What things change how an object<br />

bounces? Students should be encouraged to think about the size and the weight of an object and<br />

the material it is made from. Note: Students are only required to observe that objects made from<br />

different materials bounce differently. The properties of particular materials and how this impacts<br />

an object's behaviour is covered in the science curriculum for Year 4. PA C<br />

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Lesson 6<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> inquiry focus:<br />

How does the size and weight of an object change<br />

how it spins?<br />

<strong>Science</strong> Inquiry Skills:<br />

• Questioning and predicting QP<br />

• Planning and conducting PC<br />

• Processing and analysing data and information PA<br />

• Communicating C<br />

<strong>Science</strong> as a Human Endeavour:<br />

• Students observe how the size and shape of everyday<br />

objects affect how they spin.<br />

Technology/Engineering/Mathematics links:<br />

• viewing online images<br />

• identifying and exploring how cardboard tubes of<br />

different sizes and weights spin<br />

• participating in a class vote by answering given questions<br />

• recording a digital video of each experiment<br />

• comparing the mass of different objects using hefting<br />

• using mathematical language to describe the size and<br />

weight of objects and the speed and length of time at<br />

which they spin<br />

Background information<br />

• Spinning means to move in a continuous circular<br />

turning motion with constant contact between the<br />

object and a smooth surface, either on a spot or along<br />

a path.<br />

• Some objects spin when they are propelled in a<br />

circular motion on a hard, smooth surface, such as<br />

spinning tops. These objects usually have a central<br />

point which makes contact with the hard surface.<br />

• Some objects spin using ball bearings that al<strong>low</strong> the<br />

object to move, such as fidget spinners.<br />

• It is difficult for young children to accurately determine<br />

factors that affect spinning as, scientifically, it involves<br />

mass-density ratios of each object, the speed at<br />

which they are propelled, the type of surface they are<br />

spinning on and the amount of gravity acting on the<br />

object.<br />

• For the purpose of this unit, students should discover<br />

that similar-shaped objects of different weights and<br />

sizes spin differently.<br />

Assessment focus:<br />

• Use the videos created by each<br />

group to assess students' planning<br />

and conducting skills.<br />

• Use observation records to monitor<br />

the student's understanding of how<br />

the size and shape of an object<br />

affects how it slides during the<br />

discussion in the Reflection section.<br />

Resources<br />

• Online image search—Toys<br />

that spin<br />

• Two long cardboard tubes<br />

for each group<br />

• Two short cardboard tubes<br />

for each group<br />

• A large ball of playdough<br />

for each group<br />

• A digital camera or iPad®<br />

for each group<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Lesson 6<br />

Lesson plan<br />

Introduction:<br />

1. Conduct an image search of toys that spin. Ask students to predict how they think these toys<br />

move. Discuss that all these toys spin around in circles, either in one spot or along a path. Do<br />

you think these toys can spin without any help from humans? How do we make these objects<br />

spin? (We can flick them, we can push them and we can spin them using our hands and fingers.)<br />

QP PA<br />

Development:<br />

2. As a class, explain that each group will make their own spinners that are different sizes and<br />

have different weights, using cardboard tubes and playdough. You will have to place different<br />

amounts of playdough into the cardboard tubes, making sure that it won't fall out.<br />

3. Conduct a show-of-hands vote to identify students' understanding of how size and shape might<br />

affect how an object spins. Will a cardboard tube full of playdough spin faster or s<strong>low</strong>er than an<br />

empty carboard tube? Will a long cardboard tube full of playdough spin faster or s<strong>low</strong>er than a<br />

short cardboard tube full of playdough? Will a short cardboard tube full of playdough spin for a<br />

longer or shorter time than an empty short cardboard tube? QP<br />

4. Give each group two long cardboard tubes, two short cardboard tubes and a large ball<br />

of playdough. Note: The cardboard tubes should be the same thickness of cardboard. In their<br />

groups, students experiment to find how the size and weight of a cardboard tube affect how<br />

fast and s<strong>low</strong> the tube spins and how long it spins for by flicking one side of the cardboard tube<br />

to put it into motion. Students should be encouraged to either fill the whole tube or leave the<br />

whole tube empty to monitor <strong>res</strong>ults easily. The other group members should be encouraged<br />

to make sure that the two cardboard tubes being tested are flicked by the same person with<br />

roughly the same amount of force. One group member will need to film each spin test and<br />

explain the <strong>res</strong>ults using an iPad® or digital camera. Students repeat the activity, testing different<br />

cardboard tube combinations. PC PA<br />

Differentiation<br />

• Less capable students may work as a group with an adult helper asking prompting questions<br />

(such as those students predicted answers for) to guide the investigation.<br />

• More capable students may be encouraged to test different weights in the large and the<br />

small cardboard tubes, such as half-filled tubes, quarter-filled tubes and so on.<br />

5. Clear away the cardboard tubes and the playdough, leaving just the iPad ® or digital camera<br />

used to record the videos on each group's desk. Rotate each group of students so they are<br />

sitting in front of another group's videos. Students watch the other group's videos (on mute)<br />

and describe the <strong>res</strong>ults of the viewed experiments. If time al<strong>low</strong>s, rotate the students once<br />

more to view a third group's videos. PA<br />

Reflection:<br />

6. Using a think-pair-share, students discuss the question What things change how an object spins?<br />

Students should be encouraged to think about the size and the weight of objects. PA C<br />

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Assessment<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Teacher notes<br />

<strong>Science</strong> knowledge<br />

The way objects move depends on a variety of factors, including their size and shape (ACSSU005)<br />

Indicators<br />

• Identifies three objects that roll, including toys with wheels or round surfaces.<br />

• Identifies three objects that slide, including objects with flat surfaces.<br />

• Identifies three objects that bounce, including balls and spring-loaded toys (optional).<br />

• Identifies three objects that spin, including spinners and cogs.<br />

Differentiation<br />

• Easier option—Page 137 requi<strong>res</strong> students to draw a picture of three toys that roll, slide, bounce<br />

and spin. Students may be encouraged to find common classroom objects and test how they move<br />

to assist them.<br />

• Harder option—Page 138 requi<strong>res</strong> students to write the names of three toys that move in each way—<br />

rolling, sliding, bouncing and spinning. Students then draw a picture of a toy that performs each<br />

movement. Students may be encouraged to find common classroom objects and test how they<br />

move to assist them.<br />

Answers<br />

Page 137 and Page 138<br />

1. Teacher check—Toys that roll<br />

Answers may include:<br />

• Types of balls—marbles, tennis balls, basketballs, beach balls<br />

• Toy vehicles—cars, trucks,<br />

• Bicycles, scooters, skateboards or roller skates<br />

2. Teacher check—Toys that slide<br />

Answers may include:<br />

• Blocks—wooden construction blocks, foam blocks, Duplo® blocks<br />

• Role-play toys—plastic cooking sets, plastic furniture and dolls<br />

• Figurines—plastic or wooden animals or humans<br />

• Puzzles—wooden or cardboard traditional puzzle pieces or sliding puzzles<br />

3. Teacher check—Toys that bounce<br />

Answers may include:<br />

• Rubber balls—tennis balls, basketballs, netballs and bouncy balls<br />

• Plastic balls—beach balls, golf balls and table tennis balls<br />

• Spring-loaded toys—animal or monster pop-up toys<br />

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4. Teacher check—Toys that spin<br />

Answers may include:<br />

• Spinning tops—metal, wooden, plastic or self-created spinners<br />

• Fidget spinners—metal, wooden, plastic or self-created fidget spinners<br />

• Gear construction toys that use cogs<br />

• Merry-go-rounds<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Assessment<br />

Draw a picture of three different toys that move in each way.<br />

Have a go at writing the name of each toy.<br />

1. Toys that roll<br />

3. Toys that bounce<br />

Toys that move<br />

2. Toys that slide<br />

4. Toys that spin<br />

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Assessment<br />

Physical sciences<br />

HOW THINGS MOVE<br />

How do toys move?<br />

Write 3 toys that roll.<br />

1. ______________________________<br />

2. ______________________________<br />

3. ______________________________<br />

Write 3 toys that slide.<br />

1. ______________________________<br />

2. ______________________________<br />

3. ______________________________<br />

Write 3 toys that bounce.<br />

1. ______________________________<br />

2. ______________________________<br />

3. ______________________________<br />

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Write 3 toys that spin.<br />

1. ______________________________<br />

2. ______________________________<br />

3. ______________________________<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

<strong>STEM</strong> project<br />

<strong>STEM</strong> project overview<br />

Roll down the racetrack:<br />

Students work in pairs to design and create a racetrack for a toy sports car and a toy fire engine<br />

to roll down at the same time. Students then create a video describing the shape, size and weight<br />

of each vehicle and showing which vehicle moved faster/s<strong>low</strong>er and which travelled further along<br />

the racetrack.<br />

Concepts overview:<br />

<strong>Science</strong><br />

• Apply knowledge of how objects roll to create a downhill racetrack that two vehicles<br />

can roll down.<br />

Technology/Engineering<br />

• Apply the design process to plan, create and evaluate a racetrack which al<strong>low</strong>s two<br />

vehicles of different shapes, sizes and weights to roll down.<br />

• Select appropriate materials and apply safety procedu<strong>res</strong> while creating.<br />

• Create a digital video of the completed racetrack, describing the size, shape and weight<br />

of each vehicle and showing which vehicle rolled faster/s<strong>low</strong>er and which travelled further<br />

along the racetrack.<br />

Mathematics<br />

• Use indirect measurement to ensure the ramp is ten Unifix® cubes high and long enough<br />

for both cars to finish rolling.<br />

• Use mathematical language to describe which vehicle was heavier/lighter, which travelled<br />

faster/s<strong>low</strong>er and which travelled further.<br />

Alternative project ideas:<br />

• As a class, design and create a product that will help to move a heavy box from the ground<br />

to the top of the play equipment so that no-one gets hurt. Watch the video at to engage students in the task. Students plan and create their design and test it<br />

using a heavy box and playground equipment. Students should record a video of their group<br />

testing their product and recording its effectiveness.<br />

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• In pairs, design and create a marble maze using cardboard tubes that will al<strong>low</strong> a marble to roll<br />

from start to finish without stopping. The marble maze must be as tall as a 1-meter ruler and<br />

must change direction at least five times. The supporting legs for the maze must be attached to<br />

thick cardboard to al<strong>low</strong> it to be moved around. The <strong>res</strong>t of the maze should be freestanding.<br />

To see an example, go to .<br />

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<strong>STEM</strong> project<br />

<strong>STEM</strong> curriculum links<br />

Physical sciences<br />

HOW THINGS MOVE<br />

SCIENCE CURRICULUM<br />

<strong>Science</strong> Understanding<br />

• The way objects move depends on a variety of factors, including their size and shape (ACSSU005)<br />

<strong>Science</strong> as a Human Endeavour<br />

• <strong>Science</strong> involves observing, asking questions about, and describing changes in, objects and events (ACSHE013)<br />

<strong>Science</strong> Inquiry Skills<br />

Questioning and predicting<br />

• Pose and <strong>res</strong>pond to questions about familiar objects and events (ACSIS014)<br />

Planning and conducting<br />

• Participate in guided investigations and make observations using the senses (ACSIS011)<br />

Processing and analysing data and information<br />

• Engage in discussions about observations and rep<strong>res</strong>ent ideas (ACSIS233)<br />

Communicating<br />

• Share observations and ideas (ACSIS012)<br />

TECHNOLOGIES CURRICULUM<br />

Design and Technologies Knowledge and Understanding<br />

• Explore how technologies use forces to create movement in products (ACTDEK002)<br />

Design and Technologies Processes and Production Skills<br />

• Generate, develop and record design ideas through describing, drawing and modelling (ACTDEP006)<br />

• Use materials, components, tools, equipment and techniques to safely make designed solutions (ACTDEP007)<br />

• Use personal preferences to evaluate the success of design ideas, processes and solutions including their care for<br />

environment (ACTDEP008)<br />

• Sequence steps for making designed solutions and working collaboratively (ACTDEP009)<br />

Digital Technologies Knowledge and Understanding<br />

• Recognise and explore digital systems (hardware and software components) for a purpose (ACTDIK001)<br />

Measurement and Geometry<br />

MATHEMATICS CURRICULUM<br />

• Use direct and indirect comparisons to decide which is longer, heavier or holds more, and explain reasoning in everyday<br />

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language (ACMMG006)<br />

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Physical Earth and sciences space sciences<br />

HOW DAILY THINGS AND SEASONAL MOVE CHANGE<br />

<strong>STEM</strong> project<br />

Teacher notes<br />

<strong>STEM</strong> project:<br />

Create a racetrack for a toy sports car and a toy fire engine to roll down at the same time. Create<br />

a video describing the shape, size and weight of each vehicle and showing which vehicle moved<br />

faster/s<strong>low</strong>er and which travelled further.<br />

Estimated duration: 4 weeks<br />

1. Introduce the project<br />

• Read the problem on page 142<br />

to students.<br />

• Watch the online video at showing how to create a<br />

cardboard racetrack.<br />

• As a class, discuss students' prior<br />

knowledge of how objects move and<br />

how the size, shape and weight of objects<br />

affect how they roll.<br />

• Read the task and the important<br />

information on page 142 to students.<br />

2. Find out information<br />

• Provide time for students to find out<br />

information about toy racetracks and<br />

toy vehicles.<br />

— Find online images of homemade<br />

cardboard racetracks and racetracks<br />

that can be purchased in toy sto<strong>res</strong>.<br />

— Provide a selection of nonfiction and<br />

fiction texts for students to look at,<br />

ensuring that only factual information<br />

is transferred.<br />

— Conduct experiments with different<br />

types of ramps to see which ramp<br />

al<strong>low</strong>s the most force to push the<br />

objects into motion.<br />

3. Design, plan and manage <strong>res</strong>ources<br />

• Students plan their racetrack and create a<br />

diagram of it, labelling the materials that<br />

will be used to create each part.<br />

• Students collect the materials necessary.<br />

Remind students about <strong>res</strong>ource<br />

management, conserving <strong>res</strong>ources and<br />

ensuring that <strong>res</strong>ources are shared.<br />

4. Create<br />

• Students choose which materials they will<br />

use to make each part of the racetrack.<br />

• Students create their racetrack according<br />

to their diagram.<br />

5. Evaluate and refine<br />

• Students evaluate their racetrack to<br />

ensure that all the criteria on page 142<br />

is included.<br />

• Students make any adjustments<br />

necessary to their designed product.<br />

6. Communicate<br />

• Students create a video of their racetrack<br />

using an iPad® application or a digital<br />

camera, describing the size, shape and<br />

weight of each vehicle and showing<br />

which vehicle moved faster/s<strong>low</strong>er and<br />

which travelled further.<br />

• Display the racetracks and the videos<br />

around the classroom and conduct a<br />

gallery walk for students to view other<br />

groups' designs and videos.<br />

• Students complete the self-assessment<br />

of how well they participated and<br />

cooperated within the group.<br />

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<strong>STEM</strong> project<br />

Physical sciences<br />

HOW THINGS MOVE<br />

The problem<br />

Project brief<br />

Adam and Sari love playing with toy cars. Adam<br />

always chooses a small sports car because he likes<br />

to pretend he is a race car driver and thinks<br />

they move the fastest. Sari likes to choose fire<br />

engines because she likes to pretend she is a<br />

firefighter, moving fast to put out fi<strong>res</strong>.<br />

How can Adam and Sari test which toy car can<br />

roll faster and further?<br />

The task<br />

1. Design and create a racetrack that Adam and Sari can use to test which<br />

vehicle is the fastest and which vehicle travels the furthest.<br />

2. Create a video showing the two vehicles racing down<br />

the track and their finishing positions.<br />

Important things you need to do!<br />

• You must work in pairs.<br />

• It must have a ramp at<br />

the start that is 10 Unifix®<br />

cubes high.<br />

• It must be long enough for both<br />

cars to roll all the way to their finish position.<br />

• It must be made from recycled<br />

cardboard and paper.<br />

• The video must include a description of each vehicle,<br />

including its size, weight and shape. It must also show<br />

which vehicle moved faster/s<strong>low</strong>er and which travelled further.<br />

WATER<br />

10 Unifix®<br />

cubes high<br />

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A <strong>STEM</strong> APPROACH<br />

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Physical sciences<br />

HOW THINGS MOVE<br />

Project steps<br />

<strong>STEM</strong> project<br />

Find out information<br />

Learn about the size, shape and weight of each vehicle.<br />

Look at the two vehicles and compare their size.<br />

Look at the two vehicles and compare their shape.<br />

Heft the two vehicles to compare their weight.<br />

Learn about different types of racetracks and ramps.<br />

Look at toy racetracks that can be bought in a shop.<br />

Look at toy racetracks that other people have made at home.<br />

Find out about different types of ramps you can build.<br />

Design, plan and collect <strong>res</strong>ources<br />

Plan your racetrack.<br />

Draw your racetrack. Decide which type of ramp you will make—<br />

straight or curved.<br />

Create<br />

Label the parts of your racetrack including the ramp, the straight track,<br />

the barriers and the start line.<br />

Collect the materials you need.<br />

Create your racetrack.<br />

Decide which materials you will use to make each part.<br />

Make the racetrack.<br />

Check and make changes<br />

Check that it is correct and you are happy with it.<br />

Decide which materials you will use to make each part.<br />

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Check that both partners are happy with it.<br />

Communicate<br />

Use an iPad ® to record a video<br />

Describe each vehicle and the <strong>res</strong>ults of the racetrack test.<br />

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A <strong>STEM</strong> APPROACH<br />

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<strong>STEM</strong> project<br />

Physical sciences<br />

HOW THINGS MOVE<br />

Self – assessment<br />

Student name:<br />

Date:<br />

<strong>STEM</strong> project: Roll down the racetrack<br />

I listened to others.<br />

I gave ideas.<br />

I helped to find out information.<br />

I helped collect materials.<br />

I helped make the plan.<br />

I helped make the design.<br />

The project was: easy hard<br />

I liked ...<br />

© R.I.C. Publications<br />

Low <strong>res</strong>olution display copy<br />

.<br />

144 <strong>Science</strong>: YEAR<br />

978-1-925431-93-3 R.I.C. Publications® – www.ricpublications.com.au<br />

A <strong>STEM</strong> APPROACH<br />

F


Physical sciences<br />

HOW THINGS MOVE<br />

<strong>STEM</strong> project<br />

Group assessment rubric<br />

CRITERIA<br />

Group members:<br />

Project task:<br />

Create a racetrack for a toy sports car and a toy fire engine to roll down at the same time.<br />

Create a video describing the shape, size and weight of each vehicle and showing which<br />

vehicle moved faster/s<strong>low</strong>er and which travelled further.<br />

<strong>Science</strong> knowledge<br />

Creates a racetrack that a toy sports car and a toy fire engine can roll down.<br />

<strong>Science</strong> skills<br />

Creates a labelled diagram of their racetrack, including the materials they will use to<br />

make each part.<br />

Plans, conducts and evaluates an investigation to find out which type of ramp gives the<br />

most push to start the race.<br />

Communicates science understanding correctly, clearly and concisely using a digital<br />

video.<br />

Technology/Engineering skills<br />

Plans and designs a racetrack that al<strong>low</strong>s two vehicles to race side-by-side, using a ramp<br />

to put each vehicle in motion.<br />

Prepa<strong>res</strong> and uses materials safely when creating a racetrack using cardboard and paper.<br />

Creates a racetrack that includes a ramp and a straight stretch of track to record where the<br />

car started and finished.<br />

Evaluates designed racetrack to ensure it meets the criteria and makes any necessary<br />

changes.<br />

Plans and creates a digital video, using an iPad® or digital camera, to explain how fast and<br />

how far each vehicle rolled.<br />

Mathematics<br />

Uses informal measurement to identify the size and weight of each vehicle and to<br />

measure the height and length of the racetrack.<br />

Group skills<br />

All group members contributed fairly and appropriately.<br />

All group members collaborated and communicated effectively.<br />

Group members were able to <strong>res</strong>olve conflicts independently.<br />

1 = Be<strong>low</strong> expectation<br />

2 = Meeting expectation<br />

3 = Above expectation<br />

© R.I.C. Publications<br />

Low <strong>res</strong>olution display copy<br />

R.I.C. Publications® – www.ricpublications.com.au 978-1-925431-93-3 YEAR<br />

F<br />

<strong>Science</strong>:<br />

A <strong>STEM</strong> APPROACH<br />

145


© R.I.C. Publications<br />

Low <strong>res</strong>olution display copy<br />

146<br />

<strong>Science</strong>: YEAR<br />

978-1-925431-93-3 R.I.C. Publications® – www.ricpublications.com.au<br />

A <strong>STEM</strong> APPROACH<br />

F

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