5. Patterns in art, nature and design

Patterns are not just something we draw on squared paper. Look closely and you can find them in wings, leaves, shells, flowers, buildings, fabrics and works of art.

In this lesson you will first become a pattern detective, looking for mathematical rules in the world around you. Then you will use those same ideas to design mathematical artwork of your own.

Try it

What rule can you see?

When you look at a pattern, ask: is something repeating, sliding, reflecting, turning, branching or tessellating?

Patterns in nature

Nature has a surprise for us: its patterns are often almost regular rather than perfectly exact. Make a prediction before opening each answer.

Two butterflies with open wings, showing approximate bilateral symmetry
Butterfly wings

What seems to match?

Reveal the rule
The left and right wings show approximate reflection symmetry. Nature rarely produces two sides that are perfectly identical.
Five-armed starfish showing approximate rotational symmetry around its centre
Starfish

What happens if you imagine turning it?

Reveal the rule
Its five arms give it approximate rotational symmetry. Turning it by about one fifth of a full turn brings another arm into a similar position.
Dark green leaf with bright veins branching from a central structure
Leaf veins

Is this mainly repetition, reflection or branching?

Reveal the rule
The veins form a branching pattern: one larger structure splits into smaller ones.
Branch reflected in still water, creating a near mirror image across the waterline
A branch and its reflection

Here the symmetry comes from something different. Why?

Reveal the rule
The water creates a reflected image. The original branch itself does not need to be symmetrical.
Important idea
A mathematical pattern can be exact. A natural pattern often follows the same idea without being perfectly exact.

A living starfish may have five similar arms without every arm being identical. The mathematical idea is still useful even when nature introduces variation.

Patterns in buildings and design

People use the same mathematical ideas deliberately. Architects, artists and designers use repetition, tessellation, symmetry and turning to build complicated designs from simple rules.

Black and pale stone paving arranged in a geometric tessellation
Tessellation

Which shapes cover the pavement without gaps?

Spiral staircase viewed from above, turning around a central point
Turning

Where would you put the centre of this pattern?

Battersea Power Station viewed from the front, showing approximate bilateral symmetry
Reflection

Where would you draw the mirror line?

Architecture photographs © Sumthing Else.

Use the transformations yourself

Can you guide the butterfly to the flower and make sure it finishes facing the right way?

Now become the designer

You have found mathematical rules in nature and in things people have made. Now use those same rules to create a piece of artwork of your own.

Start here

Choose one tiny motif

Draw one small asymmetric shape: perhaps a lightning bolt, fish, leaf, boot, arrow, letter or completely invented symbol.

Then ask: what happens if I slide it, turn it or flip it?

Your design brief

Your finished artwork must use at least two mathematical rules. The rules should be visible enough for somebody else to discover them.

→ → →
Translation

Slide your motif the same distance in the same direction.

↻
Rotation

Turn your motif around a chosen centre.

◀ │ ▶
Reflection

Make a mirror image across a chosen line.

⬡ ⬡ ⬡
Tessellation

Repeat shapes without leaving gaps or overlaps.

Mix two rules

Slide + flip

Repeat a motif along a strip, alternating it with its mirror image.

Turn + reflect

Build a design around a centre, then add mirror symmetry inside each section.

Tessellate + rotate

Tile an area, but turn the motif as you move from one tile to the next.

Branch + reflect

Grow a branching design on one side of a line, then mirror it.

Create, then test your pattern

You can use pencil and ruler, coloured paper, paint, collage, stamps, tiles or a drawing app. The material does not matter — the mathematical rule does.

Design checklist
□ I began with a clear motif.
□ I used at least two mathematical rules.
□ My repeats follow the rules rather than being random.
□ I can explain where the slide, turn, reflection or tiling happens.

Can someone reverse-engineer your pattern?

Pattern detective

Show your finished artwork to somebody else without explaining the rules first. Ask them:

What is the basic motif?
What movement or transformation repeats?
Can you find a mirror line or centre of rotation?
Can you spot a second rule?

If they can uncover your rules, you have communicated the mathematics through the picture itself.

Go on a pattern hunt

Optional challenge

Find five patterns around your home, street, park or museum. Photograph or sketch them.

For each one, ask: What repeats? What stays the same? Is the pattern exact or approximate? Could more than one rule be happening at once?

Lesson complete

You found patterns — and made one of your own.

The same ideas can appear in living things, buildings, artworks and designs: repetition, symmetry, transformations and tessellation.

Printable resources

Lesson 5: Patterns in art, nature and design

Download the lesson handout and activities to explore patterns, symmetry and repeated structures in art, nature and design.

Get the Lesson 5 resources →
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