Culture and World Views in Science: a skill companion
A small set of reusable sheets that grow one Human Endeavour idea: the culture and world view people bring to nature decide which questions they ask, which methods they trust, and what they build on. Students compare what different ways of knowing put in the spotlight, study how one scholar’s way of testing changed the science of light, and sort how cultures have shaped knowledge. Print the scaffolds once and slot them into the science lessons you already teach.
What a skill companion is
Human Endeavour ideas are not a topic of their own. They grow inside the science units a class teaches all year: every Year 8 topic has knowledge that came from many cultures, from cells and blood to rocks, energy and chemical change. So this pack is not a full term of lessons. It is three reusable scaffolds, a map of where they fit, and a short stand-alone lesson for teaching the idea on its own first.
Start here: five minutes
- Read the pairing map on the next page: it links a cultural perspective to every Year 8 topic.
- Print the spotlight sheet whenever two ways of knowing meet a topic, and the case study when you teach light, mixtures or methods.
- Cut out the cards once. They are reused all year, and the blank cards fit any topic.
- Open the free interactive unit on your board when you want cultural burning or the night sky as a worked example.
- Run the one-page mini-lesson first if you want to teach the idea before folding it into a topic.
The step up from Year 7
In Year 7 students saw that knowledge held by Aboriginal and Torres Strait Islander peoples is careful knowledge of nature, and judged whether a claim was listened to and checked. In Year 8 they ask how a world view steers science itself: what it puts in the spotlight and what it leaves in shadow, which methods a culture trusts, and how knowledge has travelled between cultures and been built on. Describing another tradition accurately, without dismissing or romanticising it, is part of the skill.
Many cultures in every Year 8 topic
Every Year 8 science unit holds knowledge that came from more than one culture. This map names a perspective for each topic, what it contributed, and which scaffold to reach for. You do not run these as extra lessons; you fold them into the science you teach.
| When you teach | Whose perspective | What it contributed | Scaffold |
|---|---|---|---|
| Cells: the Basic Units of Life (AC9S8U01) | A Dutch cloth merchant, Antonie van Leeuwenhoek, grinding his own lenses (1670s) | A craft skill, not a university, gave the first views of single-celled life | The cards |
| Cells, Tissues and Organ Systems (AC9S8U02) | Ibn al-Nafis, a physician in Cairo (about 1242) | Described blood passing through the lungs centuries before European anatomists | Spotlight sheet, then the cards |
| Plate Tectonics (AC9S8U03) | Aboriginal groups around the Australian coast | Stories passed down for generations describe coastlines far out to sea, matching sea levels from more than 7000 years ago | Spotlight sheet |
| The Rock Cycle (AC9S8U04) | The Wurundjeri people at the Mount William stone quarry, Victoria | Detailed knowledge of which rock makes the best axes; greenstone axes were traded hundreds of kilometres | The cards |
| Kinetic and Potential Energy (AC9S8U05) | Aboriginal makers of returning boomerangs | A shape that spins and curves back, refined by testing over generations | Spotlight sheet |
| Elements, Compounds and Mixtures (AC9S8U06) | Alchemists in the Islamic world (from about the 800s) | Improved distillation and crystallisation, ways of separating mixtures that chemistry still uses; the word alembic comes from Arabic | The mini-lesson, then the case study |
| Physical and Chemical Changes (AC9S8U07) | Aboriginal toolmakers and artists | Heated stone so it flakes better, and heated yellow ochre to turn it red: chemical changes put to use | The cards |
The three moves, and the picture that backs each one
When you want a worked example on the board, open the interactive unit and use the picture that matches the move.
- See a world view direct an investigation, step by step: “How a world view directs an investigation”.
- Describe another culture’s knowledge fairly: “Which statements describe cultural knowledge fairly?”.
- Compare what each way of looking puts first: “Reading the same night sky in different ways”.
How the scaffolds build the idea
The spotlight sheet compares what three ways of reading the night sky put first and leave out, then does the same for a topic of your own. The case study follows Ibn al-Haytham’s darkened-room tests of light and how they travelled into European science. The cards sort snippets from many cultures by whether a world view chose the question, supplied a method, or built on another culture.
What does each way of knowing put first?
A world view works like a spotlight: it lights up some questions and leaves others in shadow. That is how attention works, and it is why many ways of knowing together see more of the world than any one alone.
A. One sky, three spotlights
| Way of knowing | The question it puts first | What it keeps track of | What it leaves in shadow |
|---|---|---|---|
| Knowledge of Country | When do the stars, and the dark shapes between them, tell us a season has come? | Where the stars and dark shapes sit after dark, through the year, linked to plants and animals on Country | |
| Geometric astronomy | How exactly do the planets move, and when will the next eclipse happen? | Angles and times, written down and calculated | |
| Navigational astronomy | Which stars rise and set where, so we can steer by them? | The points on the horizon where stars rise and set, remembered and taught |
B. Two spotlights on our topic
| Way of knowing 1 | Way of knowing 2 | |
|---|---|---|
| Whose way of knowing | ||
| The question it puts first | ||
| How it checks what it knows | ||
| What it leaves in shadow |
Teacher note: describe every tradition as it is, a careful way of understanding the world, without calling it superstition and without adding details. The pairing map and the answer sheet give examples for every Year 8 topic.
Light in a darkened room
For over a thousand years many scholars followed Greek writers such as Ptolemy, who taught that the eye sends out rays that touch what we see. Others thought something travels from objects into the eye. About a thousand years ago, Ibn al-Haytham, a scholar born in Basra who worked in Cairo, decided to settle it by testing. His Book of Optics was written between about 1011 and 1021.
A. The test
B. The world view behind the method
In a book questioning Ptolemy, Ibn al-Haytham wrote that someone seeking the truth should test what earlier writers say, not trust it because of who wrote it. He worked in a scholarly world that had translated Greek books into Arabic and valued both learning them and checking them.
C. How the knowledge travelled
Around 1200 his book was translated into Latin, and European scholars studied it for centuries; in 1604 Johannes Kepler built on this work to explain how the eye forms an image.
A question, a method, or building on others?
Cut out the cards. Lay down the three grey heading cards, then sort the snippets by how a culture shaped scientific knowledge. Notice how many parts of the world the cards come from.
Teacher note: the piles are not the same size. The answer sheet lists which card is which, and why.
A darkened room in a box
Use this stand-alone lesson to teach the idea on its own, before you fold it into a science topic. Pairs build a pinhole viewer, a small version of the darkened room that Ibn al-Haytham used about a thousand years ago, and see the bright window outside appear upside down. Then they read why a scholar who tested instead of trusting changed what the world knew about light.
We are learning to
- explain how a scholar’s world view shaped the way knowledge was tested,
- describe how knowledge passed between cultures and was built on,
- describe another culture’s contribution accurately and fairly.
Success criteria
- I can explain what the pinhole image shows about how light travels.
- I can say how Ibn al-Haytham’s way of testing differed from trusting famous writers.
You need
- for each pair: a cardboard tube or small box, a square of kitchen foil, a pin, baking paper, sticky tape and scissors (foil over one end with a pinhole in the middle, baking paper over the other end as a screen); a bright window to look towards,
- the case study (scaffold 2), one per student, and the cards from scaffold 3, one set per table. Never point the viewer at the Sun.
Lesson flow (about 30 minutes)
| 10 min | Build the viewer Pairs build the viewer, drape a jumper or jacket over their head and the screen end, and point the pinhole at a bright window. Ask: “Which way up is the window on the screen? Why might that be?” |
| 5 min | Draw the rays Pairs draw straight lines from the top and bottom of the window through the pinhole to the screen. Ask: “If the eye sent out rays, would a box with no eye in it show a picture?” |
| 10 min | The case study Students work through the case study. Show the board (see the box) as a second way a world view shapes science. Ask: “Why did it matter that he tested ideas instead of trusting famous writers?” |
| 5 min | Sort the cards Tables sort the cards under the three heading cards. Ask: “Card J built on two cultures at once. Which two, and what was added?” |
Running it shorter? Build and use the viewer, and do the case study in your next science lesson.
Watch for these ideas
- Thinking modern science came from one culture alone.
- Calling knowledge from another culture stories or superstition, or adding details nobody recorded.
- Thinking a famous writer must be right because of who they are.
Make it easier, make it bigger
- Easier: give a drawing of the viewer with the window, the pinhole and the screen, for students to add the two straight lines.
- Bigger: make the pinhole a little bigger and describe what happens to the image, then explain it with the rays.
Answers and look-fors
The next sheet has the spotlight answers, the case-study answers, a perspective for every Year 8 topic, the card key and a quick three-level guide.
Answers and look-fors
Spotlight sheet
| Way of knowing | What it leaves in shadow, for example |
|---|---|
| Knowledge of Country | Exact angles and long calculations; places far from this Country |
| Geometric astronomy | What the sky means for seasons, foods and Country here |
| Navigational astronomy | Why the stars and planets move as they do |
Learning from each other, for example: geometric astronomy can give precise dates to seasonal signs, and knowledge of Country can show what those dates mean for plants and animals here.
Case study
A. If the eye sent out rays, an empty dark room would show nothing on its wall, and covering a lamp would change nothing. Instead each lamp made its own spot on a straight line through the hole, upside down: light travels in straight lines from objects. That supports light coming from objects into the eye, as does the Sun hurting the eye. B. He tested claims instead of trusting authorities, so he designed experiments that could show an old idea wrong; testing beat authority because the famous writers had never checked. C. Ideas could be checked and improved by many people in many places; Kepler’s explanation of the eye stood on this work, so a fair history names him.
A perspective for every Year 8 topic
| A Dutch cloth merchant, Antonie van Leeuwenhoek, grinding his own lenses (1670s) | A craft skill, not a university, gave the first views of single-celled life |
| Ibn al-Nafis, a physician in Cairo (about 1242) | Described blood passing through the lungs centuries before European anatomists |
| Aboriginal groups around the Australian coast | Stories passed down for generations describe coastlines far out to sea, matching sea levels from more than 7000 years ago |
| The Wurundjeri people at the Mount William stone quarry, Victoria | Detailed knowledge of which rock makes the best axes; greenstone axes were traded hundreds of kilometres |
| Aboriginal makers of returning boomerangs | A shape that spins and curves back, refined by testing over generations |
| Alchemists in the Islamic world (from about the 800s) | Improved distillation and crystallisation, ways of separating mixtures that chemistry still uses; the word alembic comes from Arabic |
| Aboriginal toolmakers and artists | Heated stone so it flakes better, and heated yellow ochre to turn it red: chemical changes put to use |
Culture cards
| Card | Snippet | Pile | Why |
|---|---|---|---|
| A | Ibn al-Haytham’s Book of Optics was translated into Latin and studied by European scholars for centuries. | Built on another culture | Arabic science passed into Europe and was built on. |
| B | People living by hunting and gathering watched the stars for signs of when foods would be ready on Country. | Chose the question | Living on Country made timing the question that mattered. |
| C | Ibn al-Haytham tested ideas about light with a darkened room and a small hole, rather than trusting old books. | Supplied a method | Testing, not authority, as the way to find out. |
| D | Chinese astronomers kept careful written records of the sky for centuries, including a new star seen in 1054. | Supplied a method | Long, careful record keeping. |
| E | Pacific navigators asked which stars rise and set at fixed points on the horizon, to steer between islands. | Chose the question | Voyaging made direction the question. |
| F | Scholars who faced Mecca to pray asked how to find its direction from any city, and developed new mathematics to do it. | Chose the question | A practice of faith set a question for mathematics and astronomy. |
| G | Babylonian astronomers recorded the positions of planets on clay tablets and found cycles that repeat. | Supplied a method | Written records made patterns visible. |
| H | Knowledge held on Country is checked against the land, season after season, over many generations. | Supplied a method | Testing against the world, over a very long time. |
| I | Farmers in ancient Egypt watched for the star Sirius rising just before dawn, which came before the yearly Nile flood. | Chose the question | Farming made the flood’s timing the question. |
| J | Scholars in Baghdad translated Greek and Indian books on astronomy and mathematics into Arabic, and corrected them. | Built on another culture | Knowledge from two cultures, checked and extended by a third. |
| K | Communities that lived with fire asked when and how burning renews the land, not only how to stop it. | Chose the question | A world view of caring for Country framed the question. |
| L | Fire scientists and Traditional Owners now plan burns together, combining instruments with knowledge held on Country. | Built on another culture | Two ways of knowing combined. |
A quick three-level guide
| Move | Working towards | At standard | Beyond |
|---|---|---|---|
| How a world view steers science | says culture does not affect science | says what a world view puts first and what it leaves in shadow | explains why many ways of knowing together see more |
| Methods and travelling knowledge | treats science as one culture’s invention | names a method from a culture and knowledge passed between cultures | traces how one piece of knowledge was tested and extended across cultures |
| Describe fairly | dismisses or romanticises another tradition | describes it as careful, tested knowledge, with no invented detail | credits the people and tradition by name |
A student at standard explains how a world view shaped a question or a method, traces knowledge between cultures, and describes every tradition fairly. The idea grows all year, so keep the scaffolds coming back in every topic.