This activity investigates how you might make squares and pentominoes from Polydron.

Systematically explore the range of symmetric designs that can be created by shading parts of the motif below. Use normal square lattice paper to record your results.

Use the information on these cards to draw the shape that is being described.

Use the clues about the symmetrical properties of these letters to place them on the grid.

Can you recreate this Indian screen pattern? Can you make up similar patterns of your own?

Can you make the green spot travel through the tube by moving the yellow spot? Could you draw a tube that both spots would follow?

What is the missing symbol? Can you decode this in a similar way?

It's hard to make a snowflake with six perfect lines of symmetry, but it's fun to try!

Follow these instructions to make a five-pointed snowflake from a square of paper.

Use the blue spot to help you move the yellow spot from one star to the other. How are the trails of the blue and yellow spots related?

Can you place the blocks so that you see the relection in the picture?

This practical problem challenges you to create shapes and patterns with two different types of triangle. You could even try overlapping them.

Use the interactivity to create some steady rhythms. How could you create a rhythm which sounds the same forwards as it does backwards?

Mathematics is the study of patterns. Studying pattern is an opportunity to observe, hypothesise, experiment, discover and create.

This practical problem challenges you to make quadrilaterals with a loop of string. You'll need some friends to help!

Can you deduce the pattern that has been used to lay out these bottle tops?

Someone at the top of a hill sends a message in semaphore to a friend in the valley. A person in the valley behind also sees the same message. What is it?

What is the same and what is different about these tiling patterns and how do they contribute to the floor as a whole?

When dice land edge-up, we usually roll again. But what if we didn't...?

This problem explores the shapes and symmetries in some national flags.

In how many ways can you fit all three pieces together to make shapes with line symmetry?

This interactivity allows you to sort letters of the alphabet into two groups according to different properties.

What mathematical words can be used to describe this floor covering? How many different shapes can you see inside this photograph?

Some local pupils lost a geometric opportunity recently as they surveyed the cars in the car park. Did you know that car tyres, and the wheels that they on, are a rich source of geometry?

Find the missing coordinates which will form these eight quadrilaterals. These coordinates themselves will then form a shape with rotational and line symmetry.

How many different symmetrical shapes can you make by shading triangles or squares?

Each of these solids is made up with 3 squares and a triangle around each vertex. Each has a total of 18 square faces and 8 faces that are equilateral triangles. How many faces, edges and vertices. . . .

A red square and a blue square overlap so that the corner of the red square rests on the centre of the blue square. Show that, whatever the orientation of the red square, it covers a quarter of the. . . .

Create a symmetrical fabric design based on a flower motif - and realise it in Logo.

Are these statements always true, sometimes true or never true?

Here is a chance to create some attractive images by rotating shapes through multiples of 90 degrees, or 30 degrees, or 72 degrees or...

Using the 8 dominoes make a square where each of the columns and rows adds up to 8

Here is a chance to create some Celtic knots and explore the mathematics behind them.

Can all but one square of an 8 by 8 Chessboard be covered by Trominoes?

Look carefully at the video of a tangle and explain what's happening.

These images are taken from the Topkapi Palace in Istanbul, Turkey. Can you work out the basic unit that makes up each pattern? Can you continue the pattern? Can you see any similarities and. . . .

Place the numbers 1, 2, 3,..., 9 one on each square of a 3 by 3 grid so that all the rows and columns add up to a prime number. How many different solutions can you find?

Patterns that repeat in a line are strangely interesting. How many types are there and how do you tell one type from another?

Toni Beardon has chosen this article introducing a rich area for practical exploration and discovery in 3D geometry

Scheduling games is a little more challenging than one might desire. Here are some tournament formats that sport schedulers use.

Proofs that there are only seven frieze patterns involve complicated group theory. The symmetries of a cylinder provide an easier approach.

An article for students and teachers on symmetry and square dancing. What do the symmetries of the square have to do with a dos-e-dos or a swing? Find out more?

A gallery of beautiful photos of cast ironwork friezes in Australia with a mathematical discussion of the classification of frieze patterns.