Differentiation for Mixed Ability Teaching

An Action Research Project by Helen Reed (Science)

“The problem with mixed ability classes is that there are students with different needs but not always differentiated teaching”

“Differentiated instruction and assessment is a framework or philosophy for effective teaching that involves providing different students with different avenues to learning”

“Differentiation means tailoring instruction to meet individual needs. Whether teachers differentiate content, process, products or the learning environment, the use of on-going assessment and flexible grouping makes this a successful approach to instruction.”

Why I chose differentiation for my Action Research Project

I decided to research differentiation in mixed ability classes as a direct result of the great diversity in some of my classes. Last year, I had a year seven class which had a boy with significant learning needs who was just managing to attain a level 2. The same class also had students with the potential to achieve level 7. I struggled to find ideas that would engage, motivate and stretch the whole class at the same time that didn’t take all night to plan!

Through my research I also came to realise the need for differentiation in all of my classes, even my elite triple Science students – despite the majority of them being able to achieve a grade A. Differentiation in this top set of extremely able students was still necessary – to cater for the particular needs of all. Although all of the students were able to access the challenging work I set, as a class they needed different teaching/learning approaches to cater for all of their learning preferences and so maximise their potential.

To summarise the reasons for my choice, I wanted to learn quick and effective ways to differentiate in my Year 7 mixed ability class. However, this quickly extended to the need to differentiate in all of my classes.

What I learnt…

In a large class, differences between students may seem too numerous to count but differentiation works on 3 key areas….

  1. readiness to learn
  2. learning needs
  3. engaging interest

A variety of techniques are needed to cover all three aspects of differentiation…

On-going formative assessment: to continually assess and identify students’ strengths and areas of need.

Recognition of the diversity of learners: The students we teach have diverse levels of expertise with reading, writing, thinking, problem solving etc… On-going assessments allow us to develop differentiated lessons to meet every student’s needs.

Group Work: Students collaborate in pairs and small groups which enables them to engage in meaningful discussions and to observe and learn from each other.

Task: Teachers can offer a choice in the tasks they complete. This is one of the core methods of differentiation, setting different tasks for students of different abilities. An obvious way to do this is to produce different sets of worksheets or exercises depending on ability. However, this makes things difficult for the teacher in terms of delivering the material – how do you distribute the different worksheets without it being painfully obvious to the whole class who gets which sheet? Aside from these social difficulties there is the sheer time it takes to organise and produce such material. So, an alternative method is to produce a single worksheet comprised of tasks which get progressively harder. The more advanced students quickly progress to the later questions whilst the less able concentrate on grasping the essentials.

Choice: Whilst it is a good idea to produce one single differentiated sheet to avoid social difficulties, the sheets still need to be made. When there are perfectly good separate resources already available on hand in the department it seems an awful waste of time to reproduce the same material. So the alternative here is to give the students a choice of resource to work from. In my experience students like to challenge themselves and rarely, if ever choose the lower ability option out of ease.

Outcome: Differentiation by outcome is a technique whereby all students undertake the same task but a variety of results is expected. Instead of all working to one ‘right’ answer the student arrives at a personal outcome depending on their level of ability.

Differentiation in practice

Based on my findings I decided to try out a few new ideas….

Group work/Student choice

My Year 9 class, with levels ranging from level 4-7, were working on a topic about renewable energy resources. After they had learnt about the different resources (through internet research and class discussion) I put them into groups of 3. Each group were given a basic map of an Island with key features such as mountains, coastal regions, exposed open land etc….. As a team they had to decide which type of renewable energy resource would be best to supply the island with electricity. They had to do 3 things…

Draw a map detailing what type of energy resources they would use

Write an account of how the renewable energy resource would produce electricity

Verbally justify their decision

It was up to the group to decide who did which job.

The students were very engaged throughout this whole activity – it led to a whole class debate when the students tried to justify their decisions!

Differentiation by task (i)

By far the quickest and easiest method I frequently adopt is differentiation by task – but with the students choosing their task. The Science department has levelled assessment tasks at levels 4-6 or 6-8. I make both available to students and let them choose. I would say that 95% of the class make the choice that I would have chosen for them. Where a student has opted for the lower ability task as they aren’t very confident I will ask them to try both if they don’t suggest this themselves – which they usually do.

Differentiation by task (ii)

Another favourite approach of mine is to have levelled work set out ready for the students. After learning about a particular topic they will level themselves and then go and choose a level appropriate task. This means they are starting work at a level that is challenging for them – they can then move on and progress to the next level as and when they are ready.

Variety of Teaching/Learning Activities

Whilst teaching about the heart to a year 11 class where the students were working within a narrower range (grade C-A), I chose to experiment with differentiation by teaching/learning activity. Previously, I would have stood at the board and drawn a diagram explaining as I went. This time I did the same thing but then proceeded to go into the lab and show them the parts I had been discussing before challenging the students to dissect and investigate themselves. On returning to the classroom I asked the students to verbally describe what they had seen before labelling a diagram and finally answering exam questions on the heart using a text book. So the students experienced a range of auditory, verbal and kinaesthetic learning.

Conclusions

As an experienced teacher, nothing I read was completely new to me. However, It opened my eyes to the absolute necessity of versatility in the classroom for ALL classes. Differentiation isn’t about making lots of worksheets for all of my classes it’s about alternative teaching and learning styles that include every student. It’s about using the students and the strengths that they have to help each other. It’s about really knowing your students and providing challenging work whether it be by questioning, task, outcome etc.. It really doesn’t matter how you do it because there are so many options but it needs to be done for every child to achieve – although it doesn’t need to keep you up until midnight!

Featured image: Original image ’15 Rule of Great Teaching’ by Sylvia Duckworth, licensed under CC BY-NC-ND 2.0

15 Rules of Great Teaching

 

Mastery in Mathematics (6): Research and lesson adaption to fit the new GCSE curriculum

An Action Research project by Rory McMahon (Mathematics)

Aims of the Project

The aim of this project was to research ‘Mastery in Mathematics’ and the implications its’ introduction would have on our Faculty in terms of:

  • The new AQA Curriculum
  • Adjustments to the Scheme of Work
  • Alterations to lessons to promote ‘Mastery’

Background and context

This project started in response to the recent changes to the Maths curriculum which take effect from the 2017 GCSE’s. As a Faculty we looked to change our practice in light of the recent changes. The curriculum changes are as follows:

  • There is more content to teach with harder topics being introduced.
  • There is a greater emphasis on problem-solving and mathematical reasoning, with more marks in the GCSE exams being allocated to these higher-order skills.
  • The total examination time is increasing with all exams taken at the end of the course.
  • Students will also have to memorise formulae.
  • There is a new grade structure from 9 to 1, with fewer marks at the lower grades and more marks at the higher grades.

Actions taken

Peer observations to gauge the level of Mastery evident in lessons in September/October

As a Faculty all teachers took part in peer observations during Term 1 in an attempt to see good practice in action as well as gauge the level of ‘Mastery’ evident in existing lessons. Positive and constructive feedback was given and a discussion on how ‘Mastery’ could become more visible in lessons was held during Faculty meetings.

Scheme of Work changed from Kangaroo to AQA

The decision was made in January to make the switch from the Kangaroo scheme of work to the new AQA scheme to attempt to get pupils used to the new format in time for the start of the 2016-2017 academic year. Although it was thought to be a better move in the long run, there were some challenges to this approach. Firstly, a comparison of the schemes had to be made and topics which were covered already had to be crossed off.  However with the level of many topics increased, we needed to pick out sections of topics which students had not been previously been exposed to and teach those separately. Secondly, the increased difficulty of concepts and the change in focus to ‘Mastery’ proved to be difficult for students to adjust to. We were hoping they would adapt quickly to the problem solving nature of lessons as this was a style which they had not been previously used to.

Adaption of End of unit tests to support Mastery

End of Unit Tests now include Mastery style questions to build up resilience and retests are available and encouraged, so that students now have the key skills needed to succeed at this form of questioning. This is a work in progress which has been embraced by the pupils as they can see progression from the first sitting of the test to the second. It also gives them more opportunity to sample the type of examination questions they will be expected to answer in the coming years.

Further peer observations planned to see how Mastery is developing and lesson adjustments

Again in Term 3/4 the Maths Faculty undertook peer observations to observe the increase in focus towards ‘Mastery’ in lessons as standard practice. The Faculty was unanimous in the conclusion that Mastery questions were most easily integrated into the bell-work phase of the lesson or alternatively and possibly most effectively, during the Plenary phase. Personally, I found giving the students a ‘Mastery’ question as their plenary always challenged the pupils to think about the skills they had learnt in that lesson in a different way. Once the students spotted this they began to widen their horizons in terms of spotting links between different concepts learned. Some examples of Lesson alterations can be seen below.

Example 1

Our pupils in this case would have spent the majority of the lesson learning about the sum of the interior angles of polygons. In this question, they have to apply that knowledge but also represent their answers as fractions in their simplest form.

interior angles

Example 2

Factorising 1

A standard lesson on Factorising Expressions would concentrate on embedding the relevant skills needed as above. However, the Plenary to this lesson looks like the following slide below.

Factorising

The students are encouraged to use a skill learned in the lesson to solve a different style of problem, thus establishing links between different concepts.

 Adoption of Eastern Asian styles of teaching (learning information)

 It is widely recognised that the countries of Eastern Asia out-perform their UK counterparts in relation to attainment of Mathematics in primary and secondary schools. International tests show that in these countries the percentage of 15-year-olds who are functionally innumerate – unable to perform basic calculations – was more than 10 percentage points lower than in England. As recently as 12/07/2016, news broke of a £41m support for 8,000 primary schools in England to adopt the approach which is used by the leading performers in Shanghai, Singapore and Hong Kong.

The Eastern Asian method has the following features:

  • Emphasis on problem solving and comprehension, allowing students to relate what they learn and to connect knowledge
  • Careful scaffolding of core competencies of :
    • visualisation, as a platform for comprehension
    • mental strategies, to develop decision making abilities
    • pattern recognition, to support the ability to make connections and generalise
  • Emphasis on the foundations for learning and not on the content itself so students learn to think mathematically as opposed to merely reciting formulas or procedures.

As a Faculty we have tried to integrate the techniques of embedding skills in the minds of our students and then getting them to apply these skills to problems. Previous lessons would consist of teaching skills and then getting pupils to practice these skills for the remainder of the lesson. Now, our attention has changed to using and applying these skills to problem solving for real-life situations. 

On-going adaption of the Scheme of Work to include NRICH activities to further develop Mastery 

Before the focus on ‘Mastery’, the Maths Faculty always felt that problem solving was a crucial attribute for students to develop. This was enhanced by our used of ‘The Nrich Project’ from the University of Cambridge.

“NRICH is a team of qualified teachers who are also practitioners in RICH mathematical thinking. This unique blend means that NRICH is ideally placed to offer advice and support to both learners and teachers of mathematics.”

NRICH aims to:

  • Enrich the experience of the mathematics curriculum for all learners
  • Offer challenging and engaging activities
  • Develop mathematical thinking and problem-solving skills
  • Show rich mathematics in meaningful contexts
  • Work in partnership with teachers, schools and other educational settings

For teachers of mathematics, NRICH:

  • Offer free enrichment material (Problems, Articles and Games) for all ages that really can help to inspire and engage learners and embed RICH tasks into everyday practice.
  • Help to promote RICH thinking in classrooms by offering on-line and face-to-face support at Primary and Secondary level.
  • Deliver professional development courses and workshops in rich mathematics.
  • Help teachers to think strategically about ‘next steps’ and progression in problem solving.

In 2014-2015 ‘NRICH lessons’ were held once per term to help enhance the problem solving skills of students. In 2015-2016 it was felt that the Faculty should conduct NRICH lessons once per fortnight as the shift in focus was becoming apparent at that stage. Moving forward, the Maths Faculty has created a bank of NRICH lessons to be used in conjunction with the new Scheme of Work for the academic year 2016-2017. Some snapshots of how these were integrated can be seen below.

sow-1.png

sow-2.png

Impact

As a Faculty, we have discussed the possible impact of our endeavours to adjust our teaching and learning to the new and challenging ‘Mastery’ curriculum. As this style of teaching and type of examination questions have been rolled out, students have become more familiar with the concept. Therefore, we can say there has been definite progress in the students’ familiarity with the style of future exam questions.

Secondly, we can state that the confidence of our pupils has increased with regard to structuring an answer for these questions. At the beginning of the year, receiving answers from students for bellwork and plenary ‘Mastery’ questions was a difficult ordeal! Gradually through practice and knowing they should be able to use some of the content they had covered in lessons, many were then able to attempt a reasonable answer. This developed over time so now we not only have our highest attaining students putting answers together but our bottom sets are also successful.

Finally, the AQA practice papers were an invaluable resource. As with the previous strategies, students found the change in structure and expectations very difficult to deal with. Therefore, we gave students the practice paper to attempt and gave them a grade. Once the papers were handed back, students could then go through the mark scheme with green pens to see where they could have picked up more marks. Also, answers that had four, five or even six steps were often broken down by the teachers for the class. Students then had the opportunity to re-sit the examination as a confidence building exercise. Slowly but surely the results for the first sitting of the tests began to improve but as a Faculty we realise this is a work in progress.

 Conclusions

  • The new AQA Curriculum has been rolled out and used for six months this academic year (2015-16) allowing teachers the opportunity to familiarise themselves with the format and tests.
  • The new Scheme of Work has been adjusted to accommodate ‘NRICH’ lessons which we see as crucial to embedding a culture of problem solving across the department.
  • New lessons have been created and existing lessons have been amended to include ‘Mastery’ questions in the bellwork or plenary phases.
  • There is a confidence in the Faculty that we are ready to begin the 2016/2017 secure in our knowledge of the new requirements to ensure the continued progress of pupils in the Mathematics Faculty.

References

Department for Education (DfE). (2013a). National Curriculum in England: Framework Document. London: Department for Education.

Kilpatrick, J. Swafford, J. & Findell, B.(eds.)(2001). Adding it up: Helping children learn mathematics. Mathematics Learning Study Committee: National Research Council.

NCETM (2014a). Developing Mastery in Mathematics. [Online] Available from: https://www.ncetm.org.uk/resources/45776 [Accessed: 28th September 2015]

NCETM (2014b). Video material to support the implementation of the National Curriculum. Available from: https://www.ncetm.org.uk/resources/40529 [Accessed 28th September 2015]

NCETM (2015). National Curriculum Assessment Materials. [Online] Available from: https://www.ncetm.org.uk/resources/46689 [Accessed 28th September 2015]

Ofsted  (2015) Better Mathematics Conference Keynote Spring 2015. Paper presented at the Better Mathematics Conference, Norwich, Norfolk.

Featured image: original image ‘Map of Mathematics Poster’ by Dominic Wallman, licensed under CC BY-NC-ND 4.0 https://www.flickr.com/photos/95869671@N08/32264483720

 

 

Nurturing student talent in Art at Key Stage 3 in preparation for the challenges of GCSE

An Action Research Project by Tanya Owen (Art & Design)

As Van Gogh once wrote, “…one must never let the fire go out in one’s soul, but keep it burning.”

I began this research project as a direct response to teaching 4 out of 5 Art and Design groups in year 8. This particular year group has an extremely wide ability spectrum, a number of pupils with behavioural issues and one lesson a week to teach them Art in. I felt as a teacher I was not spending enough time with the higher achieving pupils. Even though I would differentiate the work, by the time the rest of the pupils were focused I would only have a limited amount of time to support pupils in developing more technical and refined skills.

I understand implicitly how to teach a pupil at GCSE level to achieve an A*. A lot of one to one work and time inside and sometimes outside of normal lessons is needed; discussing ideas; teaching technical skills and instilling the confidence to experiment with materials and make mistakes. This year, my A and A* students spent a lot of extra time after school or at lunchtimes working though these criteria and stretching their ambitions and creativity in a relaxed and supportive environment.  A trusting and positive relationship was developed with these individuals, which helped them to feel safe and to succeed.

As a response to this, I decided to begin a Year 8 Art Club for pupils who aspired to be talented artists so that they too could have a relaxed space in which to be creative and where I could teach them to a higher level, spark their creativity and tap into their imagination.

What does a talented Artist look like?

  1. They think and express themselves in creative and original ways

Pupils want to follow a different plan to other pupils and have strong personal ideas. They often challenge the tasks given and can extend the work in a fantastic direction.

  1. Have a strong desire to create in a visual form

They are driven by their imagination, flights of fancy, humanitarian concerns or personal issues/subject matter. They persevere with resolving visual problems and complete tasks successfully.

  1. Push the boundaries of a normal process

They test ideas and problem solve. They explore ways in which to depict ideas, feelings, emotions and meanings. They are excited by new ideas and ways of looking at their work and are not frightened by it.

  1. Show a passionate interest in the world of art and design

They are often interested in a particular art form, contemporary culture or youth culture.

  1. Use materials, tools and techniques skilfully and learn new approaches

They are keen to extend and explore their technical ability and can sometimes become frustrated when their skills do not allow them to do what they would like to do initially but they persevere.

  1. Initiate ideas and define problems

They can explore ideas, problems and sources on their own and collaboratively with a sense of purpose and meaning.

  1. Critically evaluate visual work and other information

They make unusual connections and links with the work of other artists. They can apply the ideas/techniques to their own work in a non-linear and innovative way.

  1. Exploit the characteristics of materials and processes

They use and understand materials well and even invent new ways of using them.

  1. Understand the ideas and meanings in their own and others’ work

Their work has meaning and a narrative which they can talk to you about on a very personal level.

As a visual person, I find definitions in words quite difficult and find the use of concrete examples much clearer, such as in the following examples of a current GCSE pupils’ work:

Fig 1

Fig 2Fig 3

Leading ultimately, to the completed project.

Fig 4

So, having clearly defined what a talented Artist’s work looks like I decided to take a very small part of this to tackle with the year 8 group. For me, it was important to inspire and excite the students about the subject. I began by running workshops for the pupils outside of lessons. Although the pupils seemed to be quite happy with this, there were not many participants and they lacked enthusiasm. So I decided to let the pupils take the lead…

Although one or two found this freedom a little difficult, we talked individually about what they wanted to do and came up with some themes and concepts. Most pupils, however, brought in their sketchbooks from home; drawings they had already done and artists’ work they particularly liked and were very excited to show me what they really enjoyed. This brought a whole new energy to the group and many more joined. Many of the pupils were very motivated by Manga Images. Pupils need to have a certain technical aptitude to draw these figures and faces accurately and many were doing this very skilfully. They are nevertheless, quite flat drawings and could be made a lot more exciting by adding various techniques and contexts to them. I did not want the pupils to just continue with creating pastiches of the artists’ work.

The Manga drawings are quite flat and cartoon like….

Fig 5

Other pupils within the group focused on various things from cake prints to make Birthday cards as well as continuing to explore classwork, to which they were be able to add some of the new techniques explored.

Fig 6

I did two weeks of each workshop demonstrating techniques and trying to get the pupils excited about applying more exciting patterns and textures into their drawings and artwork.

Fig 7

The pupils did enjoy this but seemed to do it a bit reluctantly, as most wanted to carry on with and develop their own pieces of work.

I then began to look at evidence about creativity.

Fig 8

‘The real driver of creativity is an appetite for discovery and a passion for the work itself.’ (from an article in the Guardian)

First, creativity, like learning in general, is a highly personal process. We all have different talents and aptitudes and different ways of getting to understand things. Raising achievement in schools means leaving room for these differences and not prescribing a standard ‘steeplechase’ for everyone to complete, at the same time and in the same way.

Second, creativity is not a linear process, in which you have to learn all the necessary skills before you get started. It is true that creative work in any field involves a growing mastery of skills and concepts. It is not true that they have to be mastered before the creative work can begin. Focusing on skills in isolation can kill interest in any discipline. The real driver of creativity is an appetite for discovery and a passion for the work itself. When students are motivated to learn, they naturally acquire the skills they need to get the work done. Their mastery of them grows as their creative ambitions expand.

Third, facilitating this process takes connoisseurship, judgment – and, yes, creativity, on the part of teachers. For creativity to flourish, schools have to feel free to innovate without the constant fear of being penalised for not keeping with the programme.

So, although teaching pupils new skills is effective, it would be more effective to get the pupils to answer technical  questions about their work through a desire to create a piece in a certain way.  As a teacher the challenge then is to facilitate this vision…to answer and give options to creative questions.

How do I give this creature an eerie texture?

Fig 9

How do I make this hair look more lively?

Fig 10

How do I make the paint more dribbly and random on my flowers?

Fig 11

This process has had a powerful effect on the relationship I have with those pupils. There is a greater trust that they will be able to succeed with me as their teacher, which for me is very important, as I feel it has been this group of students in particular who can be marginalised in lessons. They also have a greater confidence in the art classroom as they have a greater ownership of it. Independence and confidence has risen. I am trying to use the club as an opportunity to talk about classwork in a non-formal way so that I am able to have a bigger input into stretching their abilities and ambitions inside and outside the formal setting.

Ultimately, I want pupils to have more ‘attitude’. When I consider what is different between my most able pupils at GCSE and this group in year 8; it is that the GCSE candidates are argumentative, protective and almost stubborn about their ideas. This ‘attitude’ gives them resilience in resolving their own creative dilemmas.

As a consequence of this research I intend to proceed as follows:

My Action Plan

  • Encourage pupils to integrate new techniques into their own ideas/work to make it visually richer and craft a creative final piece.
  • Try to give them the confidence to deal with mistakes. It could lead to a new idea and the pupils may have the courage to go down a creative journey in which they do not know the outcome.
  • Add links on our Virtual Learning Environment (VLE) to various pencil and paint techniques so pupils can access them and learn how to do these at home;
    • Watercolour – salt technique, texture and cling film, blurring and wash on wash
    • Creating texture and collage – using tissue paper, glue gun, pva, pulp, newspaper, magazines
    • Pencil techniques – realistic drawing, creating texture using a pencil, portrait drawing
  • Plan an art trip for year 9 next year to raise aspirations further and run another art club based on this.

Featued image: Wallpaper Geometric Art Abstract Waves Background  Creative Commons Zero – CC0

Effective Marking/Feedback

Some excellent ideas to help make assessment more effective and manageable.

Class Teaching

Picture1.png

Tonight’s 15 Minute Forum was led by Kelly Heane (English RQT). Kelly discussed some of the strategies that she has used in her lessons to provide effective marking/feedback. Kelly began by being honest about how marking had initially been a frustrating experience as an NQT. Although at Durrington, we have a flexible feedback policy which allows departments the autonomy to create their own policies, there are still expectations regarding feedback. However, Kelly had found that marking was still time consuming; so she adopted some techniques which allowed her to reduce her workload but provide effective and sustainable feedback.

Kelly wanted to emphasise the importance of feedback for both students and teachers and approached the 15 minute forum in two halves, based upon the feedback loop diagram below.

Picture2The first part of the session focussed on the teacher-student side of the feedback loop. Kelly stressed that this needs to be regular and…

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Using E-Learning as an intervention tool for GCSE Science with Year 11 Students

An Action Research Project by Tom Nadin (Science)

Objective

The objective of this project is to research and implement e-learning strategies as a means of improving the progress and outcomes of key marginal students in GCSE (Core) Science.

Background

As a school, we operate a key stage four model in which historically, the majority of students complete the GCSE Science course in year ten and GCSE Additional Science in year eleven. We also have a group of students completing the Separate Sciences course. Using this model, the majority of students are entered for all GCSE units and accreditation at the end of year ten. The exception to this is students who we do not feel to be ready to sit their exams at this point. Each year we also have a number of students who sit their GCSE examinations at the end of year ten but who are re-entered for these exams in year eleven. Almost always this is either at the school’s request because a student’s overall GCSE Science grade is below that expected, or because students or parents request a re-sit in order to improve their overall grade, in order to access college courses.

In the academic year 2014-15 the school entered 122 students for their GCSE Science exams at the end of year ten. Having consulted with teachers, parents and teachers, the decision was made to withdraw 18 students from these exams with a view to entering them at the end of year eleven. Although overall, the GCSE Science results for this cohort were pleasing the further decision was made to re-enter 29 students to re-sit their GCSE Science exams at the end of year eleven.

This presented the Science faculty with a particular set of challenges. 47 students were due to sit their GCSE Science exams alongside their GCSE Additional Science exams in the summer of 2016. This would place significant extra demands on these students, in terms of the number of science exams they would sit and especially in terms of the bulk of knowledge they would need to retain in order to achieve successful grades. By definition this group of students overwhelmingly consisted of students who either had not achieved, or were not on track to achieve their targeted grade at the end of year ten. This was for a variety of reasons but often underpinned by a failure to successfully access the curriculum and support offered to them in year ten, or by difficulties in retaining and applying the bulk of knowledge required. In other words, this group consisted largely of the very students least likely to be able to successfully overcome the challenges facing them.

As a faculty we were not in a position financially or logistically to offer significant additional in class support to these students so needed to think creatively about out of class solutions which would help these students to access and retain the knowledge required to succeed in their exams. Online E-learning packages such as SAM learning (to which the school subscribes), seemed to offer an avenue through which support could be provided and monitored effectively.

Context

SAM learning is an online package consisting of student activities and online tests. Many of these are self-marking and can provide immediate feedback to both students and teachers. Activities can be set by teachers but can also be accessed independently by students. The school has subscribed to SAM learning for several years prior to the period of this investigation, and although it has been used by staff and students, for example for homework tasks and independent revision, it was yet to be used systematically by the Science faculty.

The functionality and accessibility of SAM learning seemed to provide a means through which interventions could be put in place for our targeted group of Y11 students. In addition to this, I was aware anecdotally of examples of SAM learning being used effectively to support revision and exam preparation at KS4, both in other departments in our school and in other local institutions. Although there appeared to have been little research done specifically in to the use of SAM learning as an intervention tool, there did seem to be robust evidence to support the view that consistent and regular use of SAM learning could lead to an improvement in student outcomes overall.

One of the most comprehensive studies into this area was conducted by the Fisher Family Trust (FFT). They investigated the effect of SAM learning on the progress and outcomes of 258 599 UK students between 2009 and 2011. The findings of this study seemed to suggest a strong link between the use of SAM learning and an improvement in student outcomes. For example the study found that on average 10 plus hours use of SAM learning led to students achieving 12.3 capped points scores higher than expected and that, although less significant, as little as between 2 and 10 hours study on SAM learning could lead to a measurable improvement in student outcomes as shown in figure one.

Fig 1

Figure 1. The actual and estimated attainment of students, with regards to their usage of E-learning.

This study also suggested that the group of students whose outcomes were improved most significantly by the use of SAM learning were those with the lowest achievement at KS2. This is summarised in figure 2. This was particularly interesting as many of the students in our intervention group were relatively low achievers at KS2.

Fig 2

 Figure 2. Value added performance with usage of E-learning in relation to prior attainment.

Most interestingly the results of the FFT study seemed to indicate that as little as two ten minute sessions per week could have a measureable impact on outcomes in Science and that more than ten hours spent on SAM learning would on average, improve outcomes by a third of a grade. These findings are summarised in figure 3.

Fig 3

Figure 3. Value added performance in core subjects with usage of E-learning.

Other research appeared to support the view that SAM learning could act as a valuable intervention tool, especially for students with a back ground of lower or under-achievement. For example an American study (Jorgensen, 2010), stressed the potential effectiveness of SAM learning in providing accessible interactive and scaffolded learning. She also stressed the program’s potentially positive impact on disengaged learners in academic and content-rich subjects such as Science.

The research seemed to suggest that SAM learning was worth exploring for use as an intervention tool with our targeted group of students in Y11.

Actions

Having made the decision to use SAM Learning as an intervention tool, it was essential to devise a programme through which it could be effectively introduced and delivered to students and monitored by members of staff. I also felt that the interventions were likely to be most effective if they integrated a range of resources and activities, drawing on existing best practice, rather than using SAM learning as a stand-alone intervention. As such, the faculty and I decided on the following actions;

  • Each student in the intervention group would be allocated a member of teaching staff as a mentor. This member of staff would ensure that the student had access to appropriate resources and would monitor and support their use. They would also be the first point of contact with home.
  • Each student would be provided with a paper revision guide and GCSE Science workbook. The staff mentor would discuss this with students and monitor their use.
  • Each student was provided with a content specific, personalised learning checklist (PLC). This had been modified so that once students had identified specific areas of need, they could reference the appropriate activities both in the revision guide/workbook and in SAM learning. Figure 4 provides an example of such a PLC

Fig 4b

Figure 4. PLC, showing specific links to revision guide and SAM learning activities

These PLCs were designed to make students’ use of SAM learning (and other revision resources), more effective by allowing them to target their efforts on the areas of greatest need.

  • It proved relatively easy to set up a group in SAM learning which contained all of the students in the intervention group. This enabled me to set the relevant tasks for the students concerned. I made the decision to set all of the Core Science tasks up front, giving students the opportunity to complete them at their own pace. I felt that this would allow them to use their PLCs to identify and then work on key areas of the subject content.
  • The interventions were tracked at the faculty level though mentors regularly updating a central spreadsheet indicating when actions had taken place. Figure 5 shows an excerpt from this tracking grid.

Fig 4a

Figure 5. An excerpt from the faculty interventions tracking grid.

  • Mentors regularly met with the intervention students in order to discuss their exam preparation and their use of resources. Having set the SAM learning tasks, I was able to monitor their usage online.

Impact

Initial analysis of the GCSE Science headline figures in 2016 suggested that the results were pleasing. Overall, students had exceeded national expectations in terms of outcomes and progress. This is summarised in figure 6.

Fig 8

Figure 6. Summary of achievement in GCSE Science 2016.

These results also suggested a modest, but significant improvement in results from those achieved and/or predicted by/for these students in the summer of 2015. Taking into account the predicted grades of the students who were not entered for GCSE Science in Y10, the percentage of students achieving A* to C grades had increased from 52% to 57% and the percentage of students making at least three levels of progress has increased from 51% to 57%. Both of these gains were particularly significant as they pushed faculty outcomes above national expectations.

It was clear that students had made limited, yet significant gains. It also appeared that the interventions we had put in place had had some impact. Of the 47 students in the intervention group, 16 (34%) had improved by one or more grade from year ten to year eleven in GCSE Science. Interestingly, of the 18 students that we did not enter for GCSE examination in Y10, only 4 (22%), improved their grade, whereas 12 of the 29 students (41%), who did take GCSE Science in Y10, but re-sat in Y11, improved their grade.

It also appeared that the use of SAM learning had had some impact on student outcomes, both for the targeted intervention group of students and perhaps unexpectedly, across the whole year group. SAM learning usage reports in June 2016 suggested that use of SAM learning across the year group in Science had increased by over 200% on the previous year, and that students in our school were on average marking greater use of SAM learning than the national average. Although it is impossible to link this usage with outcomes across the faculty, the research suggests that it is likely that it did have a positive impact. It seems likely that the raised profile of SAM learning and the distribution of resources such as the amended PLCs to students outside the target group led to increased use of SAM learning across the year group.

Specific analysis of the outcomes of students in the targeted intervention group also proved to be very interesting, especially when compared to usage of SAM learning. This is summarised in Figure 7.

Fig 6

* Based on national transition matrices.

Figure 7. SAM Learning usage and change in GCSE Science grade from year ten to year eleven.

Indicates where a student did not sit GCSE Science in Y10. The grade shown here is the teacher assessed grade.

Although there does not appear to be a direct correlation between use of SAM learning and an improvement in outcomes (and detailed statistical analysis would be needed to show this), there do appear to be some patterns.

  • 14 of the 16 students who had improved their grades had spent at least some time on SAM learning.
  • Of the 24 students who had spent at least 30 minutes on SAM learning 12 (50%), had made an improvement in their grade.
  • Of the 23 students who had spent less than half an hour, or no time on SAM learning 4 (17%), had made an improvement in their grade.
  • 2 of the 3 students with the highest usage of SAM learning made no improvement to their grade.
  • It appears that girls were more likely than boys to use SAM learning, with girls accessing SAM learning for an average of 2.40 hours and boys for an average of 1.45 hours. Twelve boys did not access SAM learning at all compared to 7 girls who did not. Interestingly this difference seemed to correspond with a slight but not significant difference in improvement of outcomes with 7 out of 24 boys (29%) and 9 out of 23 (39%) girls improving their grades.

Conclusions

It does appear that the interventions used with this cohort of students had a limited, yet significant (in terms of improved outcomes for the faculty), effect on students’ grades between year ten and year eleven. This view is supported by analysis showing that 34% of students in the intervention group improved by at least one grade. This improvement was more marked in girls (39%), than it was in boys (29%). It was also notable that more students improved their grade having first taken the exams in year ten (39%), then re-sat in year eleven, than those who were withdrawn in year ten and sat for the first time in year eleven (22%).

It is impossible to demonstrate a causal relationship between these improvements in grades and the use of SAM learning. No attempt was made to control other variables which may have had an impact on student outcomes. All students had access to a range of intervention resources, for example revision guides and work books as well as SAM learning. In many cases students who had high usage of SAM learning also regularly accessed and used other resources. Indeed, those students who were most willing to access and use SAM learning were usually those who were best motivated in general and most willing to seek support from their mentors and indeed to access other resources. However, there does seem to be a tentative relationship between use of SAM learning and an improvement in grades. Fourteen of the sixteen students who made an improvement in their grades had spent some time working on SAM learning with 50% of students who accessed SAM learning for more than half an hour seeing an improvement in their grades. A gender difference in SAM learning was also apparent, with girls being much more likely to use SAM learning and likely to spend longer using it in total, than boys.

It seems at least possible, although it is by no means proved by this piece of research, that the use of SAM learning has had a positive impact on outcomes for students retaking GCSE Science in our school. However, further more detailed research, with an attempt to control other potentially contributing variables, would be needed to demonstrate a positive correlation, let alone a causal relationship.

Next steps

This piece of action research has provided me with the opportunity to learn some valuable lessons in to how to provide effective interventions. I will be able to apply this learning and improve the package we offer to the current year eleven. It has also raised some interesting questions that could form the basis for further research.

Learning, to be applied to the current year eleven:

  • SAM learning is a valuable intervention tool. It allows students to access and assess learning independently. We will be using it again with the current year eleven
  • SAM learning is especially effective when combined with a self-diagnosis system, such as the PLCs as this allows students to direct their effort to the areas where it is most needed. Again, we will make sure that these are available for use with the current year eleven.
  • This research supports the view that SAM learning has a positive impact on student outcomes, although it by no means proves it. We will make sure that current students are aware of this and of the potential gains to be made by the regular use of SAM learning.
  • Girls appear to be more likely to access SAM learning than boys. In the current Y11, boys will need more monitoring and support than girls.
  • Out mentoring was not always effective in leading students (especially boys), to consistently use SAM learning. We will need to consider more effective ways in which mentoring and support can be offered.

Possible areas for further research:

  • Is there a causal relationship between the use of SAM learning and improved outcomes in GCSE Science, especially for previously underachieving students?
  • What is the relative effectiveness of SAM learning as an intervention tool compared with more traditional paper based resources, for example revision guides and work books?
  • Are girls more likely to access SAM learning than boys? Why might this be?

References and further reading

Fisher Family Trust (2012), Impact of E.Learning.

Jorgensen M. (2010), An intervention that works – SAM Learning.

Featured image: By GNOME icon artists (HTTP / FTP) [CC BY-SA 3.0 (http://creativecommons.org/licenses/by-sa/3.0) or LGPL (http://www.gnu.org/copyleft/lgpl.html)%5D, via Wikimedia Commons

The effective deployment of Teaching Assistants in the classroom to maximise the progress of pupils with identified SEND

An Action Research Project by Aleisha Woodley

Context and classroom development of differentiated approaches to assessment for those pupils operating well below their peers.

As line manager of the SEND team and in conjunction with the SENCO the need to research this topic was two-fold. After teaching staff Teaching Assistants (TAs) are the second biggest staffing cost in most schools, so deploying them in line with the latest research to maximise their impact on and in supporting pupil progress is vital in gaining value for money.  Secondly, after establishing how they should be deployed the best practice from teachers in engaging, supporting and directing this valuable resource is essential. The research phase was undertaken as a combination of a literature review of current research on models of deployment and impact studies on pupil progress as a result.  This led to a clear model in the context of St Bernadette’s for deployment of our TAs after observation of the current model and impact.  With the following aims:

  1. Teachers should be more aware of their responsibilities towards low attaining and SEND pupils
  2. Increase quality of TA interactions with pupils
  3. Create quality teacher and TA liaison time
  4. TAs have a clearer understanding of lesson plans, objectives and how to support pupils in meeting them
  5. Increase TAs self-esteem, value and confidence with a more clearly defined role.

This work was written up in full by the SENCO and implemented at the beginning of 2016-17 academic year. The quality of dialogue and parallel research meant that on-going discussions in learning focus time (CPD time allocated to staff across the school year) and line management time was clearly understood and developed a joint understanding of what was needed to improve deployment of TAs in class and for interventions.  The SENCOs project then focussed on developing the understanding for teachers and how they can best direct, support and deploy the TAs with the most advantage in their classroom to improve the progress of pupils.

My consideration for my own classroom practice then focussed on the targets in green (see exemplars below) and on classroom implications for those pupils that work well below the levels/grades of the rest of the class. In the academic year 2015-16 I taught a number of pupils operating well below the rest of the class academically who had a variety of learning difficulties preventing them from fully accessing and operating at the expected level of their peers. I interviewed pupils about their difficulties and how best to assess their understanding rather than their ability to record their understanding.  This produced key questions that would assess pupils’ learning and bridging the gap between their understanding and that of their peers as a key assessment tool in class.   The pupils’ preferences and recommendations were taken into consideration when developing and implementing these ideas.

Background & Literature Review of TA deployment

The school context:

The school is an 11-16 mainstream Catholic Comprehensive that has 750 pupils on roll with a wide ability range from pupils on P levels to working beyond A* at GCSE. 84 pupils were on the SEND register in the academic year 2015-16. This is 10.76% of the school population which is slightly below the national average. 8 pupils were covered by a statement of Special Educational Needs or an Educational Health Care Plan.

The primary need of each pupil is stated and shared with all teaching staff along with suggested strategies for meeting these needs in class. Specific strategies and external agency advice is sought and shared for those with complex needs or those pupils whose progress is very slow.  These external agencies range from ASDOT who are the Autistic Spectrum Disorder Outreach Team; BIS Behaviour Improvement Service: Speech and Language Team; Hearing Impairment Service etc.  The use of these additional agencies is identified according to the need of the pupil and their barriers to learning.

The SEN D code of practice states “Special educational provision is underpinned by high quality teaching and is compromised by anything less.” The school has for a number of years required teachers to publish ‘pen portraits’ for each class that highlights the needs of pupils in the class it highlights pupils on the SEND register; Pupil Premium or Disadvantaged; high ability; English as an additional language EAL. Teachers’ highlight the needs of pupils in each category as well as strategies they will employ in meeting those needs in the classroom.  This has sharpened the focus on meeting the needs of different groups of pupils and has proven successful in helping to reduce gaps.

Teaching Assistant deployment in class

The 1981 Education Act was the first legislation that outlined the responsibilities of Local Authorities (LAs) and schools in meeting the needs of pupils with Special Educational Needs. (SEN) The right of parents to request a mainstream primary or secondary school educate their child rather than a special school with a population of all SEN children was enshrined in law. Hence the birth of inclusion of pupils with significant additional needs in mainstream schools often referred to as inclusion. Statutory statements were also introduced that set out for pupils with significant or complex needs what help and support should be provided for them. Other SEN pupils without statements were also recognised and the need for teachers to ensure that they make adequate progress made clear. This inclusion of SEN pupils into mainstream schools led to an increased workload for teachers and for former volunteers or helpers to be paid to support SEN pupils in the classroom.  These early TAs were often unqualified and many of them were mothers, as school hours fitted around child care.  Although the first survey of the impact of TAs was not undertaken until 2009 with the DISS project. (Deployment and Impact of Support Staff) It demonstrated that TAs often worked with the lowest attaining pupils to support and help them access their work.  This conversely also meant that teachers spent the smallest amount of time with these pupils.  TAs with the least specialist training were working closely with those that arguably, needed the most help.  DISS also found that TA interaction with the teacher relieved the teacher’s stress, as they were able to complete administrative tasks and support but did not aid the progress of the pupils in their care as their training was not sufficient to develop their interaction with these pupils adequately.  The (MAST) Making a Statement Project found that TAs often had “more responsibility for planning and teaching statemented pupils that teachers.” Pg2.  TAs were expected to plan and differentiate on the spot once a lesson had started with little or no guidance from the teacher, (Webster and Blatchford 2013) concluded that one of the reasons was that teachers had/ have limited knowledge on how to meet the growing needs of the pupils in their classrooms, claiming that little or no additional training in their initial teacher training (ITT) courses (EEF 2015)

EEF 2015 showed that the more support an SEN pupil had from a TA the more likely that they would not make as much progress as someone similar with little or no support (Webster and Blatchford 2012) This was not the fault of the TA but how they were deployed and what additional training they had (Blatchford, Russell and Webster 2016). The DISS project had highlighted the lack of TA preparedness, they turned up to a lesson with no idea of what was being taught and how. The TA often had to respond as quickly as the pupils and support the SEN pupil to complete and record tasks often having to modify content as they worked. Using TAs in this way has been highlighted as poor Quality First Teaching in the Code of Practice 2014, which highlighted that the skills of the teacher are needed to focus on the SEN pupil. Blatchford 2012 highlighted the TAs lack of training hindering open questioning and not promoting higher order thinking skills. He went as far as to say that if this was not addressed then it would continue to hold back the progress of learning for those with SEN. Other studies have found that where TAs are trained and do know the content required then they can have a positive impact on progress and confidence of pupils with SEN.  Education for Everybody 2015 found that TAs inspire confidence in children, encouraging them to take part and helping them feel safe to participate.  Having an additional adult in the classroom also allows teachers to be risk takers, improvising creative ways and practical tasks rather than traditional seated work. (Alborz et al 2009)

Webster 2013 stated “TAs can only be as effective as teachers enable them to be. TAs need to ask what skills or knowledge the pupil they support should be developing and what learning teachers want them to achieve by the end of the lesson.”

The COP 2014 goes further by stating that “teachers are to be wholly responsible and accountable for SEN students in their classroom. Providing high quality teaching and differentiation for those requiring additional support in class; even with support staff in the classroom, and understanding the needs they have.”  It is from this point that I considered how best to meet the needs of pupils in my classes and their individual preferences in types and timing of support in lessons.

Context and classroom development of differentiated approaches to assessment for those pupils operating well below their peers:

After completing the literature review and analysis of effective deployment of TAs, as well as the role of the teacher in Quality First Teaching I began to consider the effectiveness of my own practice in differentiating for and effectively assessing those pupils at Key Stage 3 and 4 that were operating at levels 1 to 3 in Key stage 3 and pre GCSE grades equivalent to levels 2 or 3 at Key stage 3 or grades G and F at GCSE. The Code of Practice for SEN states:

A pupil has a learning difficulty if:

  • They have a significantly greater difficulty in learning than the majority of other pupils of the same age or;
  • Have a disability which prevents or hinders them from making use of educational facilities of a kind generally provided for others of the same age in mainstream schools.
  • Under the Equality Act 2010. Schools must not discriminate and they must make reasonable adjustments for disabled young persons.
  • The definition of disability in the Equality Act includes children with long term health conditions such as; asthma, diabetes, epilepsy, and cancer. These children may not have Special Educational Needs, but there is a significant overlap between disabled children and young people with SEN.

It also states the school must:

  • Be able to identify the young persons with Special Education Needs and assess their needs
  • Adapt the curriculum, teaching and learning environment and access to ancillary aids and assistive technology
  • Assess and review the young person’s progress towards outcomes
  • Support the young person in moving towards phases of educations
  • Enable the young person to prepare for adulthood.
  • Secure expertise among teachers to support the young person with Special Educational Needs – This should include expertise at three levels; awareness, enhanced and specialist
  • Assess and evaluate the effectiveness of the provision for the young person with Special Educational Needs
  • Enable the young person with Special Educational Needs to access extra-curricular activities
  • Supporting emotional and social development of the young person with Special Educational Needs
  • Ensure the young person with Special Educational Needs takes part in actives with children who do not have Special Educational Needs as far as possible

Obviously some of these criteria have direct application in the classroom and must inform planning, teacher development and training to instil these skills and attributes in every classroom and teachers’ day to day practice.

The COP also spells out the direct responsibilities of the teacher in relation to pupils with SEN.

  • Teachers are responsible and accountable for the progress and development of the pupils in their class, even if they have support staff or a Teaching Assistant present.
  • Where a pupil is not making adequate progress teachers, SENCO and parents should collaborate.
  • High quality teaching, differentiated for individual pupils with Special Educational Needs must be provided.
  • Additional intervention and support cannot compensate for lack of good quality teaching.
  • Schools should regularly and carefully review the quality of teaching for teaching for pupils at risk of under-achievement.
  • Schools should regularly and carefully review teachers’ understanding of strategies to support vulnerable pupils and their knowledge of Special Educational Needs most frequently encountered.
  • The quality of teaching for pupils with Special Educational Needs and the progress made by pupils should be a core part of Performance Management / Appraisal. Special Educational Needs should not be regarded as sufficient explanation for low achievement.

The COP goes on to spell out what adequate progress is for pupils on the SEN register especially if they have low starting points:

  • Similar to that of peers with similar starting points or baselines
  • Matches or betters the child’s previous rate of progress
  • Closes the attainment gap between the child and their peers
  • Prevents the attainment gap growing wider

The school system at St Bernadette’s for setting target levels or grades ensures that each pupil is intended or targeted to make at least expected progress even those with low starting points. The challenge for me in my teaching in a mixed ability class is accurately assessing and developing their progress to the next level or grade when the majority of peers are working at a higher level.  Targeted oral questioning is one way it has been addressed as well as assessing written tasks of all pupils against success criteria.  The use of TAs in some cases to support pupils has also traditionally been used to gauge pupil progress.  TA support is not always possible and is often targeted at those pupils with a statement or EHCP as their support is statutory.  Concerns in many of the studies have also been raised including this one.  “The most vulnerable and disadvantaged pupils receive less educational input from teachers than other pupils” (Blatchford, Russell and Webster 2016 P18). To maximise the time spent and the impact with these pupils and to accurately assess their lesson by lesson progress was a real priority.  In order to establish current practice and the actions to be undertaken I interviewed the pupils I taught in 2015-16 who were operating below the average range of their peers.  All of the pupils I taught were also on the SEN register that were in this category.  All of them were receiving additional literacy support outside of the classroom.

Actions

To focus on the pupil perceptions of their progress and strategies that supported them to do well. I have summarised the most useful comments below each question.

“What do you like that teachers’ do in class to help you?”

  • Come and check if I have understood the instructions
  • Always have the same routine in class at the beginning and end of lessons
  • Come and sit with me
  • Give me time to think of an answer
  • Read through worksheets or information together
  • Point to where you are on the screen
  • Make reading simple.
  • Help me with presentation

“What don’t you like that teachers’ do to try and help you?”

  • Give me different work
  • Ask me a question I cannot answer
  • Tell me off if I’m asking someone for help because I’m stuck
  • Tell me in front of everyone just do this bit
  • Give me different worksheets
  • Never ask me questions in class on my opinion
  • Move on too quickly if I don’t know

“What do you find the most difficult in class to do or try?”

  • Lots of writing
  • Answer questions in front of everyone I am not prepared for
  • Read out loud without help
  • Read on my own
  • Write simplified information without help
  • Complete lots of written questions.
  • Answer yellow stickers
  • Read teacher’s handwriting on the board or in our book

“What makes you feel successful or happy in your work?”

  • Teacher praise
  • If I’m asked for my opinion
  • Leading something I’m good at
  • Completing a task well
  • The teacher checking on me and saying good stuff

As a result of the unscientific but helpful discussion with 6 of my pupils I decided to focus on the beginning and end of my lessons. All 6 pupils were working below the average range of the their peers for age related expectations, were all on the SEN register for mild learning difficulties and had received or were in receipt of literacy intervention outside of the classroom.  Pupils were all really clear they never wanted to be given a different worksheet or work to do.  They were quite happy to start on easy questions that got harder and try to do the more difficult ones if they could.  They also did not want to do lots and lots of writing every lesson.  Three boys in Year 8 all stated that thinking about writing as well as the question slowed them down.  The school expectation is that a lesson objective is shared with pupils for every lesson as well as success criteria and these are used a benchmarks of success at the end of the lesson.

figure-1

Figure 1. This is the type of slide used at the start of every lesson that highlights the objective as well as the success criteria. These are referenced to new GCSE measures.

figure-2

Figure 2.  These pre-planned or targeted questions have become part of my routine planning to assess the pupils in my class that would normally be operating below the age related expectations. Although I now have a TA for this class I sit with the pupils and assess their knowledge and am able to push their understanding further if they have grasped the basic concepts.  I then note progress towards the success criteria.  Pupils said they found writing plenaries quite difficult.

figure-3

Figure 3.  This is in addition to above in the application of the required knowledge. Again, verbal questioning and recording by me as the teacher ensures an accurate picture of the pupil’s assessment level in that lesson.  It is described and written in this manner so a TA would be familiar with it and could use it if necessary.  This planning takes little time, max 10 minutes per lesson and when it has been done it can be used again for different classes.  This has become their routine and allows me time to correct really fundamental flaws but also to celebrate their successes.

figure-4

Figure 4. Success criteria used with the whole class. This is still used with SEN pupils and they can tick where they have succeeded i.e. identifying bulbs or battery in a circuit is possible for them.

figure-5

Figure 5.  These key questions and exemplars break down for the TA or remind the teacher what can the pupil do and what does this mean in relation to the success criteria. It also helps the TA during the lesson to ask relevant questions to help the pupil access the learning.

figure-6figure-6afigure-6b

Figure 6. These three plenary slides have also been used for summative capture at the end of the module etc. The pupils reported fatigue by the end of a lesson so they want to use simple but effective strategies to summarise their learning.

figure-7

Impact & conclusion

The strategies for questioning at the correct level, developing TAs expertise in questioning and the plenary approaches are all simple tools that have been effective. Some of the pupils I am teaching for the second year will select their own plenary tool or ask for more direct help than they used to if it is not public.  A barrier to recording their understanding does not mean they do not understand and their verbal responses can demonstrate their higher understanding.  Spending more time with these pupils during the lesson means they become less frustrated and will engage more as evidenced with one pupil that I have taught for two years.  He has not received any negative referrals as his level of engagement have risen using these techniques.  I have a full record for all of these pupils of how they have performed in each lesson via verbal questioning as well as written assessments produced independently which measure their ability to capture this information.

I routinely use this planning and plenary tasks and this certainty helps the pupils to demonstrate their learning more effectively. Previously, I would have relied on the few verbal questions they do answer in class and their written work.

Sources/ References

Alborz, A, Farrell. P, Howes, A., Pearson. D, (2009) The impact of adult support staff on pupils and mainstream schools. London HMSO

Black. P and Williams. D (1998) Inside the black box: raising standards through classroom assessment. London GL Assessment Ltd

Bland. K and Sleightholme. S (2012) Researching the pupil voice: what makes a good teaching assistant? British Journal of Learning Support Nasen

Blatchford P., Russell A., Webster R.(2012) Reassessing the Impact of Teaching Assistants. How research challenges practice and policy. Routeledge

DFE: (January 2015) Special educational needs and disability code of practice: 0 to 25 years – Statutory guidance for organisations which work with and support children and young people who have special educational needs or disabilities

(Featured image: GotCredit, Education key keyboard, CC BY 2.0)

The Awkward Mole

A sharing best practice post by Jodie Johnson (Mathematics)

This activity sharpens up pupils’ ability to precisely follow a particular process to complete a specific task.  These examples come from Maths but they could apply equally well to any process in any subject.  For instance, ‘constructing a perpendicular bisector on a line’, ‘bisecting an angle’, ‘drawing an equilateral triangle’ etc., etc.

awkard-mole

Step 1: Pupils A and B sit back to back with Pupil A facing the teacher/board with an incomplete worksheet (see above)

Step 2: The teacher silently demonstrates the process to complete a task on the board.  Pupil A copies the teacher’s demonstration onto their worksheet.

Step 3:  Without changing position Pupil A now explains to Pupil B how to complete the process on their worksheet by giving clear verbal instructions (they are not allowed to look at what Pupil B is doing)

Step 4: Pupil A and B look at the results and discuss the instructions given (were they specific?, were they clear?, how could they be more precise? how could they be improved), in order to refine and perfect them.

Step 5: (Here is where the ‘awkward mole’ comes in!)  You now invite a ‘random’ pupil to come up to the front and follow the instructions they are given by another member of the class to demonstrate how to complete the process in front of the class.  Unknown to the rest of the class you have primed the ‘random pupil’ to be your ‘awkward mole’ and instructed them to be as awkward as possible when following the other pupil’s instructions – to take instructions literally, to deliberately ‘misunderstand’ ambiguous instructions and so on.  The onus is then on the pupil giving the instructions to refine their thinking and instructions until they succeed in getting the mole to ‘get it right’!

In one case a pupil instructed the mole to ‘draw an arc’, so that’s what he did with Noah and the animals too!

You can prime more than one pupil to be your mole in the lesson and don’t forget to reverse the roles for pupils A and B so they both get a turn.

Featured image: Mick E. Talbot, Mr Mole, CC BY-SA 3.0

 

Mastery in Mathematics (5)

An Action Research Project by Elizabeth Drewitt (Mathematics)

Focus

In this report I aim to share how our departmental research into Mastery in Mathematics has impacted on the students I teach.

Context

There is no argument to the value of mastery as a life skill:

Director Dr Helen Drury says, “In mathematics, you know you’ve mastered something when you can apply it to a totally new problem in an unfamiliar situation”¹.

What better way to prepare our students for life after school than to give them the confidence to approach new situations and problems with confidence.

Mastery enables students to:

  • Develop mathematical language
  • Articulate their reasoning
  • Share ideas on approaches to problem solving
  • Grow in confidence when discussing ideas

I decided to focus on the techniques we can use as teachers to get our students ready for the road to mastery.

All teachers have experienced that:

‘Students learn better when they are curious, thoughtful, determined and collaborative.’ (Nrich)

We spend vast amounts of energy nurturing these traits within our classes. But for some students, the experience of failure or fear of failure shuts down any chance of curiosity. Expecting failure often means students cannot even consider an alternative outcome and therefore determination, thought and collaboration are pointless and avoided. It is a self-fulfilling prophecy. I feel this is particularly the case in mathematics, often voiced by parents at Parents’ Evening, ‘I can’t do maths’. Here I propose that maths is not something that ‘can be done’ or ‘cannot be done’. I would like to challenge the parents as to whether they know their times tables or not. It is highly likely the case that it is not maths these parents struggled with but their times tables. They did not have the basic tools to face the rest of the subject with and so encountered difficulty at every turn. I believe that for many, it was not the PROCESS of expanding brackets that caused a problem but actually the MULTIPLYING.

DEVELOPING BASIC MATHEMATICAL SKILLS

The importance of times tables within the mathematics curriculum cannot be underestimated, yet the importance of learning times tables is still under debate amongst professionals:

Jo Boaler argued that the UK Government position, that every child must memorise their times tables up to 12 x 12 by age nine, is ‘absolutely disastrous’. In contrast, Charlie Stripp stated knowing the times tables supports mathematical learning and understanding.

“Here at Mathematics Mastery, we believe children who have a strong grasp of their times tables are more confident when learning new mathematical concepts and, importantly, enjoy the subject more.” But note here I’ve said ‘strong grasp’ and not simply ‘memorised’.

Here I put forward the view that the road to mastery must start with each student being equipped with a tool box and in that tool box must be curiosity, resilience and……times tables!

Some students cannot/have not/will not memorise the times tables. Some think that if they do not know the answer then that’s the end of that. Full stop! If we do not give these students tools and tricks to work out the answer then we are closing the door on Mastery, opportunity and the growth of a learning identity.

SOLUTION

Never accept I don’t know my times tables. WORK it out. ‘Not knowing’ does not equate to ‘can’t find out’.

TRICKS

Explicitly TEACH how to work them out.

  • count up in two’s on your fingers,
  • count sticks/dots,
  • write out the times tables each time,
  • use your fingers for the 9 times table.
  • Do 10 x {?) then add 2x [?] for the 12 times tables.

ACTIONS

  • Time must be dedicated to times tables each week if we are to provide each student with a fully operational toolbox.
  • Bell work: fill in 5 x 5 times tables grids with random numbers. Students self-differentiate by choosing different coloured grids that represent basic times tables, reverse times tables, lots of mystery headings, larger numbers, decimal numbers.
  • For KS3 or lower ability classes, 10 minute multiplication and division challenges, results recorded and tracked.

RESULTS

  • Practice makes perfect, whether they are memorised or worked out.
  • Students get familiar with the method they choose to work it out.
  • Students see an increase in speed, ease at completing grids and see their own scores improve over time.
  • Take control of their own Bell Work, empowering, safe and challenging.
  • Pupil ‘A’ counting up in twos on his fingers. yr11!!!
  • Pupil ‘B’ in Year 8 showing a peer the 9x table trick using your fingers

Ultimately, we have removed a massive stumbling block that lurks on the road to mastery!

DEVELOPING STUDENT CONFIDENCE

So many students do not know their times tables and believe that is the end of it…but now we have challenged this idea. Just as some people say they can’t do maths…now we can move on and challenge the idea that ‘I can’t do maths’. Mastery teaches students to move away from these barriers and

  • Develop mathematical language
  • Articulate their reasoning
  • Share ideas on approaches to problem solving
  • Grow in confidence when discussing ideas……..

BUT to articulate their reasoning they must first have an opinion. To discuss their ideas they must first have an idea. To solve a problem they must first want to find a solution. They must first form an identity as a learner. Self-worth and confidence play an enormous part. Teaching lower ability classes can often (but not always) mean the students are largely disaffected. Through perceived/experienced failure their confidence has been eroded. We must challenge the perception of mathematics being all about right and wrong answers to build up a self-esteem that is positive enough to support the mastery platform.

When I asked a new group of Year 10s to GUESS the size of ten angles they were shown, half the group did not commit to paper, stating that they did KNOW the answers. Therefore these learners denied themselves the chance to feel good – others who guessed were thrilled when their guess was close but interestingly were not crushed when their guess was way off. Their learning identity was positive and it grew in a very simple exercise. I too joined in to prove that I do not KNOW all the answers, but have the tools to either guess or work it out.

Year 8 Extension task: (LOWER ability) Having studied the rule for adding and subtracting directed numbers, I asked students to write down what THEY THINK the rule could be for multiplying and dividing directed numbers. Some students wrote, ‘I don’t know, we haven’t done this yet’. Again, they didn’t have an opinion and again these students reinforced the negative image they have of themselves as learners. They needed choices pointing out to them and then they were able to take ownership of their choices and make it their idea by giving an example. Imagine their delight when some had predicted the correct rule. Again, those who had predicted in error were not crushed – it was just an idea. The students who had developed their own idea were keen to tell everyone what their prediction was, irrespective of being right or wrong, purely because it was their own idea.

TRICKS

  • Give students opportunities to GET IT WRONG and show it doesn’t matter.
  • Insist (‘encourage’) students commit an idea to paper- to have an OPINIION. Having an opinion gave them a vested interest in outcome which in turn made them more likely to come up with an outcome AND remember it.
  • Admit that as a teacher/ human/ adult we don’t know everything. I am not expecting my students to KNOW everything, the joy is in the working it out.

RESULTS

  • Students are prepared to guess, think, form an opinion, take risks.
  • Students are more likely to see a method through to the end to see if they were right (a win-win situation)
  • Students are more likely to have confidence in the next unfamiliar learning episode.
  • One Year 10 pupil could not even say true or false to a probing question. She has no confidence in maths and so does not think about maths, has no ideas about maths, cannot possibly articulate maths………I sat down with her and asked her to guess (we’ve been working on this idea). She chose False. I encouraged her to use an amount of money to see if she was right or not. We worked through the calculation and proved it to be False. She was thrilled, smiled (!!!!!) and wrote in her book ‘so I was right!!’. Anna believes she has been very successful and her confidence and enjoyment of maths has changed enormously in just a few weeks.

REFERENCES

¹ Drury, H. (2014) Mastering Mathematics. Oxford University Press, pp8.

Department for Education (DfE). (2013a). National Curriculum in England: Framework Document. London: Department for Education.

Kilpatrick, J. Swafford, J. & Findell, B.(eds.)(2001). Adding it up: Helping children learn mathematics. Mathematics Learning Study Committee: National Research Council.

NCETM (2014a). Developing Mastery in Mathematics. [Online] Available from: https://www.ncetm.org.uk/resources/45776 [Accessed: 28th September 2015]

NCETM (2014b). Video material to support the implementation of the National Curriculum. Available from: https://www.ncetm.org.uk/resources/40529 [Accessed 28th September 2015]

NCETM (2015). National Curriculum Assessment Materials. [Online] Available from: https://www.ncetm.org.uk/resources/46689 [Accessed 28th September 2015]

Ofsted  (2015) Better Mathematics Conference Keynote Spring 2015. Paper presented at the Better Mathematics Conference, Norwich, Norfolk

Featured image: ‘Central City Times Tables’ by Derek Bridges (www.flickr.com) CC. BY 2.0

Establishing a Framework to Support Independent Revision

An Action Research Project by Darragh McMullan (Humanities)

Focus

The focus for this will be year 10 students going into year 11. From previous experience and with the increasing demands on students to undertake exam revision, I feel students need to be clear what areas of a course they are weaker in and what areas they need to focus on more specifically for revision. This is not taking away from the fact that students still need to revisit the whole course but it can enable them to attend specific revision sessions and target certain areas in the run up to exams.

Actions

I set out to use PIXL to track students’ knowledge of topics in year 10. This was achieved by creating simple 10 question knowledge tests on the key points for that unit. Based on what students achieved they would receive a Green, Amber, Red rating. This was recorded in their books for their reference and also on an Excel spread sheet. This would enable targeting of students at revision time.

dm1

Students can then prioritise attendance at revision sessions for areas of weakness. In these sessions I do not want them to be a similar lesson to the one taught the previous year. I feel the best way for students to revise independently is using learning mats (see below). This includes all the key questions students need to know for particular units. Students can find and discuss these questions in revision sessions with the teacher becoming a facilitator, helping students, answering questions and stretching students.

dm2

Next Steps

Taking this further I have begun to look at exam questions and how this can be tracked to enable students to see what questions they need to concentrate on. I have also started to develop revision packs that include these questions as HW.

dm3

This will enable HW to be set as a revision task with students looking at the different types of exam questions to enable them to practise these throughout the year. These questions will include mark schemes and suggested sentence starters so students are clearer about what is required for that particular question. This can again be recorded and students can be guided to practise certain questions that they are weaker on.

dm4

The aim will be to ensure that at the end of the course students are clear what knowledge they need to revise, what questions they need to practice and will have the revision materials (learning mat, revision guides) to complete independent revision.

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Featured image:   Adams Monumental Illustrated Panorama of History (1878) By Creator:Sebastian C. Adams [Public domain], via Wikimedia Commons

Silent Conversations

A ‘Sharing best practice’ post by Jodie Johnson (Mathematics)

“Shhh! We’re going to have a silent conversation…”

An unusual instruction to a class but one that can help to focus thinking and forge collaboration amongst pupils.  How?  Well listen in…

Working in pairs, the class are given a series of questions of varying levels of difficulty.  Their challenge is to answer the questions in silence.  Partners can ‘ask’ each other as many questions as they like, as long as they do so in writing.  At the end of the activity pairs can then demonstrate to their peers or to the class, how they would solve the problem…in silence just like they will have to do in an exam!

By taking it in turns to solve each step of the problem everybody is engaged and by being allowed to ‘ask’ questions they can help each other get ‘unstuck’ when necessary.  The focus on the written demonstration of the solution helps cement the process needed to reach the solution.

Here’s an example of some worked solutions shared (in silence) by pupils with the rest of the class:

silent-conversations

Featured image:  ‘Silence’ (original image) by Alberto Ortiz on http://www.Flickr.com (license CC-BY-NC-ND 2.0)