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Planning for learning (at key stage 3)
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Planning for learning (at key stage 3)
Planning lessons involves thinking about many different things
Whether teachers are planning learners’ work for a whole year, for a series of lessons or for a single lesson, they will use what they know and understand about many different things. In addition to knowing what the national curriculum requires them to teach, following national guidance and taking account of research findings, they will draw on their recollections of past experiences and the wisdom derived from them.
Main Section
Creative and efficient planning for learning mathematics is often a collaborative enterprise. Whether or not teachers develop good planning skills by working with colleagues, in any planning activity they draw on their recollections of past experiences, the understanding they have derived from them, and their knowledge. They will draw on what they know about many things, which must include what the National Curriculum requires them by law to teach. The Mathematics programme of study for key stage 3 and attainment targets, which is an extract from The National Curriculum 2007, can be downloaded here. At the Qualifications and Curriculum Authority (QCA) web site teachers will also find guidance on planning and assessment, notes on how mathematics links to various things, such as 'functional skills', and curriculum case studies.
When planning learning at key stage 3, teachers will also use the renewed Framework for secondary mathematics (2008) which builds on the original Framework for teaching mathematics that was produced in 2001. It is based on the programmes of study for the new secondary curriculum. To enable the National Strategies to keep content updated continually, the Secondary Framework for mathematics can now only be viewed online (http://www.standards.dcsf.gov.uk/secondary/framework/maths/fwsm/); it is not all in a download format as were previous publications. However, 'The Framework for secondary mathematics: overview and learning objectives' can be downloaded here.
Following the 1419 Education and skills White Paper (February 2005), and the Skills White Paper (March 2005), the DfES gave QCA a remit to develop functional skills in English, ICT and mathematics. The resulting 'Standards for functional skills' can also be downloaded from the QCA web site (http://www.qca.org.uk/qca_6066.aspx). The Quality Improvement Agency (QIA), Secondary National Strategies (SNS) and the Learning and Skills Network (LSN) have produced resources to support the delivery of functional skills (http://excellence.qia.org.uk/functionalskills) including 'Teaching and learning functional mathematics'. In planning for key stage 3, teachers may also want to prepare learners for the teaching of financial capability, which is an aspect of QCA's Framework for Work Related Learning (2004). (Since September 2004, Work Related Learning has been a statutory requirement for all Key Stage 4 students.)
Knowledge about research in the teaching and learning of mathematics will inform all successful planning. A good place to start is the British Society for Research into Learning Mathematics (BSRLM) (http://www.bsrlm.org.uk/), which is 'a supportive environment for both new and experienced researchers to develop their ideas'. The BSRLM meets three times a year to present and discuss the latest research in mathematics education, informal brief reports of which can be downloaded (http://www.bsrlm.org.uk/informalproceedings.html). The BSRLM also provides links to sources of research evidence from UK universities and national and international organisations (http://www.bsrlm.org.uk/links.html). There are several BSRLM working groups, including the NCETM/BSRLM working group which is developing a framework for researching CPD in mathematics (internal link).
Teachers usually develop long term, medium term and short term plans. Long term plans show how units or topics or modules fit together over a school year to provide varied opportunities for learners to try to meet learning objectives set for the year. Medium term plans indicate in more detail how learners will encounter ideas in the units for a term or half a term through different kinds of activities. Short term plans are detailed plans for a single lesson or a short series of lessons. They include objectives, descriptions of tasks and activities, resources, assumed prior learning, and misconceptions or obstacles that the teacher may need to address.
When creating long term plans teachers need to consider how mathematical ideas or themes will recur, so that learners can extend and deepen their understanding. (See Mathematical Themes). They also need to be aware of the complex ways in which mathematical ideas are linked, perhaps connecting ideas using concept maps or an online thesaurus, such as the 'Connecting mathematics' web site (http://thesaurus.maths.org/mmkb/view.html?resource=index). For example, algebraic and graphical ideas explored earlier in the year might be encountered again, and extended, in geometrical explorations. (See Spiral Curriculum and Spiral Tasks).
Drawing up a medium term plan is an opportunity for teachers to think about how learners can be motivated by varying the kind of activity that they engage in. For example, a unit in which learners use dynamic geometry software to explore lines, angles, triangles, quadrilaterals and constructions, might be followed by a unit about probability in which learners discuss answers to questions stimulated by experimenting with Dime probability kits. A unit about volume and surface area in which learners make models of 'monoliths' might then follow this. Although in all three units learners may experiment, discuss, conjecture, generalise and reflect, the thinking is generated by learners physically doing different kinds of things: working at computers, then using small objects, then making things.
When devising short term plans for a lesson, a good teacher thinks carefully about each part of the lesson. Having decided what the learning objectives for the lesson are (see Lesson Objectives), the teacher selects or devises activities with the potential to enable learners to meet the objectives (see Selecting Suitable Learning Activities (at key stage 3)). She will usually provide several distinct activities that together form an effective, progressive learning experience (see Learning Trajectory). Although the three-part lesson, consisting of a starter, a main activity and a plenary session, can be effective, it is not necessary to stick rigidly to this form. A teacher may vary the lesson structure; research shows that it is how learners are drawn into the ideas that matters, rather than the shape of the lesson (see Lesson Details and LessonStructures).
When planning a lesson it is important that the teacher 'plays the lesson through' in her mind beforehand, visualising how the learners are likely to be acting at each stage, and what she will be doing and saying to encourage learning. In doing this, the teacher brings to mind her knowledge about effective teaching strategies (see Selecting Teaching Strategies (at key stage 3)), including where it may be helpful to pause (see Pausing). In playing the lesson through in her mind, the teacher also thinks about previous learning on which the lesson will build (see Prior Learning, Starting From Where Learners Are and Curricular Continuity and Progression). The teacher can focus on mathematical language which she may introduce, in the hope that learners will find that language helpful in thinking and talking efficiently about the ideas (see Rate of Learning (Progression)). Imagining the lesson in advance helps the teacher anticipate misconceptions and stumbling blocks. It also reminds the teacher of resources that might be helpful, as well as essential resources (see Selecting and Using Resources for Learning (at key stage 3)). All these considerations are important aspects of planning.
Another part of planning a lesson, or series of lessons, is deciding how the teaching will extend the learners' 'big picture' of what doing mathematics is. In every lesson the teacher can remind the learners of some aspect of what mathematicians do. (See Start with the Big Picture).
Before creating short term plans, possibly when drawing up long term plans, a good teacher will have thought about how the mathematics that the lessons are about is connected to other mathematical ideas. They will know where the topic came from historically, why it is in the curriculum, and in what contexts it is relevant (see Structure of a Topic). However, because even an excellent teacher does not know everything, it is a good idea to have strategies for dealing with learners' unexpected insights (see I thought I knew).
Probes and prompts:What plans do you actually use? What is their form?
What plans to you devise, or help to devise?
What aspects of your plans are useful, and what aspects are not so useful? Taking action:Think about a lesson that you will be teaching soon.
Read all the plans that you have that are relevant to that lesson.
'Play the lesson through' in your mind.
If you think other reminders or prompts would help you immediately before or during the lesson, write them in the plan.
After the lesson, look again at your plans and any reminders and prompts that you wrote. What was useful, and what was not? Case StudiesThe teachers in a department developed their long and medium term plans together. At no time were the plans regarded as complete or finished. They were regarded as 'living' documents that evolved as teachers added to and modified them, sharing, reflecting on, and discussing their experiences and ideas.
Teachers individually devised their own short term plans for lessons. These plans were based on the medium term plans. Because short term plans were also shared and discussed, experienced teachers supported less experienced teachers, although more experienced teachers often changed their plans when new teachers suggested fresh ideas.
A teacher in this department was planning the first of a series of lessons for year 9 learners working towards level 7. During these lessons the teacher wanted learners to build on their understanding of theoretical probability by estimating probabilities and comparing experimental and theoretical probabilities.
The teacher decided that during the first lesson she would find out as much as possible about the students' prior learning. She would devise an activity in which learners had to calculate probabilities using equally likely outcomes. She made a note to remind herself to set up the activity so that some probabilities would be easier to calculate by first finding the probability of an event not happening, then subtracting that probability from 1, than by trying to find the probability in one step. She would look out for evidence that learners were doing this, and encourage them to explain and discuss different methods.
For the next task she would set up a puzzle that could be solved by carrying out an experiment, estimating probabilities, and comparing the estimates with theoretical probabilities. She thought that the learners were unlikely not to know that different outcomes may result from repeating an experiment, but she made a note to check that this knowledge was evident.
At the end of the lesson she would invite learners to talk about their findings, and describe their reasoning. This would prepare learners for the next lesson.
Having established, and made notes about, the structure of the lesson, the teacher set about planning each activity in detail. The teacher remembered that, when they were developing the medium term plans, someone had mentioned dominoes. The teacher found a set of dominoes. She set them out on a table, arranged and rearranged them. She began to devise tasks, and eventually she felt ready to create her lesson plan.
She decided on this occasion not to begin the lesson with any kind of discussion about learning objectives. She would try to generate interest by focussing straight away on dominoes. The teacher would explain that each domino in a complete double-6 set shows a pair of numbers taken from the set of integers from 0 to 6, all possible pairs are shown, and each pair is shown only once. She would challenge the learners to work out mentally the number of dominoes in a complete set. Because some learners might just know the answer, she would stress that she was looking for explanations. She would encourage learners to discuss with each other ways of working it out, before inviting them to justify their answers and explain their thinking. This introduction might be extended by generating discussion about the total number of dots on subsets of a complete set of dominoes. She wrote brief notes summarising this first part of the lesson.
The teacher wrote a reminder that, for the rest of the lesson, learners would need sets of dominoes, and that she would display a picture of a complete set on the whiteboard. The picture was the first item on her list of resources that she would need to prepare.

A learner would be invited to pick out one domino at random and state a fact about the numbers on it. The teacher would challenge learners to work out the probability of that fact being a true fact about the numbers on any domino picked at random. She would ask learners to explain their thinking, and encourage discussion. She would then invite learners to state other facts about the numbers on the domino and to work out the probability of those facts being true. This could be repeated by replacing the domino and inviting another learner to pick a different domino, for which different facts about the numbers would be true. By repeating the procedure several times the probability of many different events would be discussed. The teacher wrote a summary of this part of the lesson. She also wrote a note to remind herself that, when generating discussion of the learners' methods, she would, if necessary, prompt discussion about first finding the probability of an event not happening, then subtracting that probability from 1. She might, for example, ask learners how they would work out the probability that the total number of dots is greater than 2.
She made another note to remind herself to observe whether, and how, learners use the words 'outcome' and 'event' and the phrases 'possible outcomes', 'mutually exclusive' and 'theoretical probability'. If necessary she would prompt discussion about their meanings.
Learners, perhaps working in pairs, would now have the opportunity to choose their own domino, write true facts about the numbers on their domino, and work out the probability of each fact being true for any domino picked at random. She wrote a line to remind herself that learners would do this.
After this the class would be divided up into small groups to attempt a task in which each group uses one set of dominoes. In order to be able to introduce it clearly, the teacher wrote for herself a description of the task: "Each group of learners chooses a whole number between 0 and 6, and removes from their set all the dominoes with that number on it. They place the remaining dominoes in a container, and groups exchange containers. The challenge for each group is to reach a conclusion, without taking all the dominoes out of the container and looking at them, about which dominoes have been removed from the set that they receive. They may take one domino at a time out of the container, recording the numbers on the dominoes before replacing them."
The teacher added containers to her list of necessary resources.
The teacher, anticipating that groups might need to be prompted, spent some time thinking about, and writing, prompts that might be helpful. The teacher's list of prompts included 'If an event is impossible, how often will it happen?', 'If, when you do an experiment, A happens much more often than B happens, what would you conclude about the probabilities of A and B?', 'Could you make use of the theoretical probabilities of some simple events?', 'Will the probability of an event that we discussed earlier still be the same now that some dominoes have been removed?'.
It was while thinking about prompts to get learners started, or to keep them going, that the teacher decided to conclude this lesson, when the groups had time to discuss their first thoughts, by generating a class discussion of possible ways of tackling the task. This would be an opportunity for learners to reflect on what they had been doing earlier in the lesson, and on how they could use it in the present task. They would also have time to think about ways forward before the next lesson. The teacher wrote a line to remind herself to try to end the lesson in this way.
Research SourcesJones, K. and Smith, K. (1997), Student Teachers Learning to Plan Mathematics Lessons. Paper presented at the 1997 Annual Conference of the Association of Mathematics Education Teachers (AMET1997). Leicester. 15-17 May 1997.
Perks, P. and Prestage, S. (1994), Planning for Teaching. In B Jaworski and A Watson (eds), Mentoring in Mathematics Teaching. London: Falmer.
Ref: Mason, J. (1993) with Hewitt, D. & Brown, L. Ways of Seeing, in M. Selinger (Ed) Teaching Mathematics, Routledge & Kegan Paul, London.
Oliver Caviglioli & Ian Harris (2001), Mapwise: Accelerated learning through visible thinking, Network Educational Press
Robert Powell (1997), Active Whole-Class Teaching, Robert Powell Publications
Griffin, P. & Gates, P. (1989). Project Mathematics UPDATE: PM753A,B,C,D, Preparing To Teach Angle, Equations, Ratio and Probability, Open University, Milton Keynes.
Mason, J. & Johnston-Wilder, S. (2006 2nd edition). Designing and Using Mathematical Tasks, Open University, Milton Keynes.
Mason, J. (2002). Researching Your own Practice: The Discipline of Noticing. London: RoutledgeFalmer
Perks, P. (2002). Progression in mathematics. In Haggarty, L. (Ed) Aspects of teaching secondary mathematics: perspectives on practice. London: RoutledgeFalmer
Mason, J. & Johnston-Wilder, S. (2004). Fundamental Constructs in Mathematics Education, RoutledgeFalmer, London.
Gardiner, A. 1992, Recurring Themes in School Mathematics: Part 1 direct and inverse operations Mathematics in School, 21(5) p5-7.
Gardiner, A. 1993a, Recurring Themes in School Mathematics: Part 2 Reasons and Reasoning, Mathematics in School, 23(1) p20-21.
Gardiner, A. 1993b, Recurring Themes in School Mathematics: Part 3 generalised arithmetic Mathematics in School, 22(2) p20-21.
Gardiner, A. 1993c, Recurring Themes in School Mathematics, Part 4 infinity, Mathematics in School, 22(4) p19-21.
Categories
Curriculum, Pedagogy
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