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These are the Transum resources related to the statement: "Pupils should be taught to recognise and use sequences of triangular, square and cube numbers, simple arithmetic progressions, Fibonacci type sequences, quadratic sequences, and simple geometric progressions (r^{n} where n is an integer, and r is a positive rational number {or a surd}) {and other sequences}".

Here are some specific activities, investigations or visual aids we have picked out. Click anywhere in the grey area to access the resource.

- Arithmetic Sequences An exercise on linear sequences including finding an expression for the nth term and the sum of n terms.
- Aunt Lucy's Legacy Decide which of the four schemes Aunt Lucy proposes will provide the most money. This investigation involves the sum of sequences as well as considering life expectancy.
- Fibonacci Quest A number of self marking quizzes based on the fascinating Fibonacci Sequence.
- Geometric Sequences An exercise on geometric sequences including finding the nth term and the sum of any number of terms.
- Handshakes If everyone in this room shook hands with each other, how many handshakes would there be?
- Matchstick Patterns Create a formula to describe the nth term of a sequence by examining the structure of the diagrams.
- Missing Terms Can you work out which numbers are missing from these number sequences?
- Prison Cell Problem A number patterns investigation involving prisoners and prison guards.
- Quadratic and Cubic Sequences Deduce expressions to calculate the nth term of quadratic and cubic sequences.
- Sequence Generator An online app which produces number sequences as words.
- Steps Investigate the numbers associated with this growing sequence of steps made from Multilink cubes.
- Trapezia Which numbers can be represented by groups of circles arranged in the shape of a trapezium?
- Watsadoo Rotate the cogs to catch the flying numbers in the correct sections.

Here are some exam-style questions on this statement:

- "
*The first five terms of an arithmetic sequence are:*" ... more - "
*Here is a picture of four models. Some of the cubes are hidden behind other cubes.*" ... more - "
*(a) Find the \(n\)th term of the sequence 7, 13, 19, 25,...*" ... more - "
*Work out an expression for the n*" ... more^{th}term of the quadratic sequence - "
*Find an expression, in terms of \(n\), for the \(n\)th term of the sequence that has the following first five terms:*" ... more - "
*The diagrams above show a growing fractal of triangles. The sides of the largest equilateral triangle in each diagram are of length 1 metre.*" ... more - "
*The diagrams below show a sequence of patterns made from red and yellow tiles.*" ... more - "
*(a) A sequence is defined by the following rule where \(u_n\) is the \(n^{th}\) term of the sequence:*" ... more

Click on a topic below for suggested lesson starters, resources and activities from Transum.

- Number Spotting patterns is an important skill in many areas of life. The world of numbers contains many fascinating patterns and understanding them enables better problem solving strategies. From seeing patterns in the multiples of numbers shaded in a hundred square to spotting the recurring sequences of digits in decimal numbers there is a great deal for pupils to be introduced to. This topic includes even, odd, prime, triangular, perfect, abundant, square and cube numbers. It uses factors and multiples to find solutions to real life problems and encourages number connections to be investigated for pleasure. There are a lot of puzzles, challenges and games too. See also the Mental Methods topic and our Number Skills Inventory.
- Sequences A pattern of numbers following a rule is called a sequence. There are many different types of sequence and this topic introduces pupils to some of them. The most basic sequences of numbers is formed by adding a constant to a term to get the next term of the sequence. This rule can be expressed as a linear equation and the terms of the sequence when plotted as a series of coordinates forms a straight line. More complex sequences are investigated where the rule is not a linear function. Other well-known sequences includes the Fibonacci sequence where the rule for obtaining the next term depends on the previous two terms. Sequences can be derived from shapes and patterns. A growing patterns of squares or triangles formed from toothpicks is often used to show linear sequences in a very practical way. Diagrams representing sequences provides interesting display material for the classroom. Typically pupils are challenged to find the next term of a given sequence but a deeper understanding is needed to find intermediate terms, 100th term or the nth term of a sequence.

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