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Guidance, ideas and examples to support schools in developing their curriculum, pedagogy, enrichment and support for more able learners, within a whole-school context of cognitively challenging learning for all. Includes ideas to support curriculum development, and practical examples, resources and ideas to try in the classroom. Popular topics include: curriculum development, enrichment, independent learning, questioning, oracy, resilience, aspirations, assessment, feedback, metacognition, and critical thinking.

 

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Seven key principles for a challenging KS3 science curriculum

Posted By Edmund Walsh, 08 October 2019

Ahead of his workshop on this topic, NACE Associate Ed Walsh shares seven key components of a challenging KS3 science curriculum…

“Is our KS3 course doing its job?” This is one of the most powerful questions a science leader in a secondary school can ask.

The new GCSE courses are no longer really new; many teachers are finding their way around the specifications, developing aspects such as the running order of topics, time allocated to activities and applying emphasis to areas that results analyses indicate are deficient.

There, is, of course, a limit as to what can be achieved within KS4. If students are starting on their GCSE courses with limitations in their grasp of science then the more effective solution may lie in KS3. I’d like to share some ideas as to how learners, especially the most able, can be effectively catered for at this stage. It is, of course, relatively easy to pose questions and harder work to identify answers. With this in mind I’ve also included some links to useful references and resources.

1. Talk the (science) talk

What language is being used in lessons? Are students being supported, challenged and expected to ‘talk science’? This needs to go beyond knowing the right names for objects, to also having a command of connectives. Would an observer in your classroom catch use of words and phrases such as ‘because’, ‘therefore’ and ‘as a result of’ – not just by the teacher but by students as they are developing explanations?

Read more: Useful materials on speaking and listening can be found in Session 4 of the National Strategies Literacy in Science Training Materials.

2.  Ensure practical work adds value

What is the role of practical work in your science teaching and learning? Is it exploratory as well as illustrative? Does it prompt questions and ideas? Is it effective at developing the apparatus and techniques skills needed at GCSE so that able learners have, for example, mastered the use of microscopes by the time they start GCSE courses and can then concentrate on other aspects of investigations?

Read more: The newly published ASE/Gatsby report Good Practical Science provides benchmarks to support departments seeking to improve the effectiveness of practical science teaching.

3.  Review your use of questioning and command words

What kind of questions are being asked? A good starting point is to look at the command words used in GCSE specifications and consider whether students are being exposed to these all the way through their secondary science experience. As well as ‘describe’ and ‘explain’, are able learners being asked to evaluate, compare, contrast and suggest? As well as closed and specific questions, are you posing open and exploratory questions?

Read more: Guidance on questioning is provided in unit 7 of Pedagogy and Practice: Teaching and Learning in Secondary Schools (DfES).

4. Develop writing (quality, not quantity)

What is the role of writing? This is not a plea for lengthy, exhaustive (and exhausting) experimental writeups or even necessarily for anything of any length. It’s more that there is a case for getting students producing short pieces of high-quality writing that do a particular job well. This might be, for example, comparing and contrasting different materials for a car body, suggesting and justifying an energy provision plan for a particular location or analysing a graph that shows how different carrier bags respond to loads.

Read more: Useful materials on writing can be found in Session 3 of the National Strategies Literacy in Science Training Materials.

5. Ensure key concepts are covered and revisited

Have the ‘cornerstone concepts’ been effectively introduced and revisited? Is the concept of energy well developed and do students understand what is meant by an ecosystem? Such key concepts can be seen as tools that scientists can reach for when developing explanations; able learners should become more proficient in doing this.

Read more: An overview of how key ideas can be planned for in KS3 is provided in AQA’s KS3 Science Syllabus.

6.  Respond to learners’ needs

How responsive is the teaching to nurturing able learners and focusing on their learning needs? If these students are going to realise their potential at the end of GCSE then their KS3 experience needs to be tailored to areas in which they need a good grounding. For example, if they’re confident with the concept of a chemical reaction but less familiar with different types of reaction, can the latter be made a particular focus? Students who feel they are ‘treading water’ may not perform to the best of their ability.

Read more: A really good reference source on this is Dylan Wiliam’s Embedded Formative Assessment (2011, Solution Tree, 978-1-934009-30-7)

7. Develop science capital

Students are more likely to succeed if they see a purpose to their learning. Are there opportunities for them to see the doors that are open to young people who are competent and keen in STEM subjects? A good example of resources recently published to support this are the Royal Society’s series of videos with Professor Brian Cox – as well as demonstrating how experiments can be done in schools, they also show why these ideas are important and useful in society and highlight the cutting-edge research in each area.

Read more: This blog post from The Science Museum’s Beth Hawkins provides a useful introduction to the concept of science capital and how it can be developed. Plus, watch our webinar on this topic (member login required).


For additional support to develop your provision for more able learners in science, sign in as a NACE member to access Ed Walsh's NACE Essentials guide to realising the potential of more able learners in GCSE science, and recorded webinar on effective questioning in science.

Not yet a NACE member? Find out more, and join our mailing list for free updates and free sample resources.

Tags:  CPD  curriculum  free resources  GCSE  KS3  questioning  science 

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8 ways to develop independent learning skills

Posted By NACE, 17 April 2019
Updated: 03 June 2019
At our spring term meetup, hosted by Jesus College Oxford, NACE members from all phases and sectors joined to discuss and share approaches to developing independent learning skills. Read on for a selection of ideas to try out in your own school…

1. Extended research projects

Extended research projects are widely used across the NACE community, including Extended Project Qualifications (EPQs) as well as a range of other initiatives. At Birchensale Middle School, for example, Year 8 students undertake an independent research project in which points are collected by completing different tasks – the more challenging the task, the more points available. Learners have a choice of topics, presentation methods and supporting materials of different levels.

Meanwhile at Impington Village College, groups of more able learners in Years 8 to 10 from each faculty area meet fortnightly to support each other on an independent research project of their choice. With support from peers and their “faculty champion”, they develop higher-level research skills based on IB coursework models and the A-level EPQ.  

2. Flipped learning

Alongside extended projects, members highlighted flipped learning as effective in developing independence. At Sarah Bonnell School (KS3-4) learners are provided with a bank of resources and reading for each topic, to work through independently ahead of lessons. Students’ response to this approach has been very positive, says the school’s Sabrina Sahebdin. “It allows them to come to the lesson prepared with questions and a chance to query areas where they need further clarification. Time is not wasted in fact finding during lessons; instead we apply knowledge, analyse and evaluate. It has stretched and challenged them further in aiding them with further research for peer teaching.”

3. Presenting to peers

Building on independent learning and research tasks, members highlighted the benefits of asking learners to present their findings to peers – digesting and sharing information in an accessible, engaging and/or persuasive way. Jamie Kisiel, Teaching and Learning Coordinator at Langley School (KS2-5), shared her use of a “knockout debate” competition, which she says has led to students providing more in-depth evaluation in essays and developing more thought-provoking questions, while also ensuring they have a strong foundation in the subject.

At Pangbourne College (KS3-5), learners are challenged to present as experts on a topic they have researched independently. G&T Coordinator Ellie Calver explains that while the whole class explores the same general topic, more able learners are tasked with presenting on the more open-ended and challenging aspects. She comments, “There is a sense of pride in being able to pull others forwards, a real interest in making the material interactive, and a drive to find out more in order to work out what is most significant.”

4. TIF tasks

At Caludon Castle School (KS3-5), each lesson and home-learning task includes a Take It Further or TIF activity – an opportunity to go deeper through independent learning. Assistant Headteacher Steff Hutchison explains, “The TIFs are usually fun, challenging, quirky, a little bit off the wall, so students want to engage with them.” Having come to expect and enjoy these tasks, more able learners now ask for additional TIFs or – even better – devise their own. Steff adds, “Doing the TIF is considered to be cool, so the majority of students of all abilities strive to complete at least one TIF in an average week.”

5. Student-run revision quizzes

At The Commonweal School (KS3-5), students take a leading role by running their own maths revision quizzes. Work in pairs or small groups, they develop questions on the topic being revisited, create a PowerPoint presentation and decide how points will be awarded. “The competitive element is a cause for great excitement – it’s good to see them having so much fun,” says G&T Coordinator Genny Williams. She adds that the initiative has helped learners develop a deeper understanding through working at the top of Bloom’s Taxonomy, given them a strong motivation to take learning further, and has contributed to improved attainment in termly tests.

6. Super-curricular activities

At Hydesville Tower School, learners in Years 3 to 6 are invited to join the Problem-Solving Club – offering opportunities to work with peers on practical and engaging problem-solving activities. Assistant Headteacher Manjit Chand says participants are more inclined to take risks and use metacognitive strategies, and have developed their self-confidence, independence and resilience.

Shrewsbury High School’s Super Curriculum features a range of opportunities for stretch and challenge, including an Art Scholars club and Sixth Form Feminist Society. Each brings together students and staff with a shared interest, providing opportunities to engage with external partners (such as Shrewsbury Museum and Art Gallery, which hosted an exhibition of students’ work) and to explore the subject from multiple perspectives – including relevant research and personal experiences. “Ultimately,” says the school’s Natalie Thomas, “these initiatives work as a result of inspiring a love of learning.”

Learners at Malvern St James (EYFS-KS5) also benefit from opportunities to think and discuss ideas beyond the curriculum, at “discussion suppers” – small-group events at which selected students and staff discuss a topic over supper. Participants are asked to research the theme of the evening beforehand and to come prepared to share their ideas, listen to others, challenge and be challenged in turn. Learning Support and Enrichment Coordinator Rebecca Jones comments, “Pupils admit that it is quite a daunting experience, but feel pleased that they have taken part afterwards.”

7. Building blocks for discussion

While food helps to fuel debate at Malvern St James, at Shipston High School structure is provided with the help of Duplo or Lego bricks. Working in small groups, learners take turns to contribute to the conversation, adding a brick to a shared construction each time they speak. The colour of brick determines the nature of their contribution – for example, red bricks to accept, yellow to build, blue to challenge. Jordan Whitworth, Head of Religion, Ethics and Philosophy and the school’s lead NACE coordinator, says this simple activity has helped learners develop a range of skills for critical and independent thinking.

8. Access to other students’ solutions

At King Edwin Primary School, pupils have opportunities to learn from peers not just within their own school, but across the country. Having participated in the NACE/NRICH ambassadors scheme, Assistant Headteacher Anthony Bandy shared his experience of using the low-threshold, high-ceiling maths resources provided by Cambridge University’s NRICH. In particular, he highlighted the impact of sharing the solutions published on the NRICH website – which allow learners to see how other students, from different phases and schools, have solved each problem. This can inspire more able learners to seek out different approaches, to grasp new strategies and skills independently – including those covered at later key stages – and to apply this learning in different contexts.

Find out more…

For additional ideas and guidance to help your more able students develop as independent learners, join our upcoming members’ webinar on this topic. The webinar will take place on 25 April 2019, led by Dr Matthew Williams, Access Fellow at Jesus College Oxford.

For full details and to reserve your place, log in to our members’ site.

Tags:  collaboration  enrichment  free resources  independent learning  problem-solving  project-based learning  questioning 

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4 free resources to develop GCSE English literature AO2

Posted By Charlotte Bourne, Globe Education, 12 April 2019
Updated: 03 June 2019

Charlotte Bourne, Deputy Head of Learning at Shakespeare’s Globe, shares four examples of free resources available via the Globe’s 2019 website on Romeo and Juliet, focusing on the development of Assessment Objective 2.

My last blog selected four resources from Shakespeare's Globe’s 2019 Romeo and Juliet website and explained how these could be used to address the needs of more able learners, within a context of challenge for all. Here, I want to drill down into one specific assessment objective within GCSE English literature and discuss four more resources that can support teaching and learning within this area. As ever, these resources are provided free of charge and form part of the Globe's commitment to increasing access to Shakespeare.

Studying a different play? Fear not… Through the Playing Shakespeare with Deutsche Bank project, Shakespeare's Globe also offers dedicated resource websites on:

You can also visit the Globe’s Teach Shakespeare website for hundreds of free resources, searchable by play, key stage and resource type.

AO2: analysing the creation of “meaning and effects”

Assessment Objective 2 (AO2) requires learners to “analyse the language, form and structure used by a writer to create meanings and effects, using relevant subject terminology where appropriate.”

Many of our resources begin with the “meaning and effects” that have been created. It is incredibly hard for learners to analyse a feature if it creates no effect on them, or if the meaning is obscure. Start with what interests them, or what stands out, then break it down to consider why and how this is the case.

This positions them as active learners and moves them beyond feature-spotting at word-level – important as better GCSE responses discuss the structure and dramatic impact of the text.

Furthermore, broadening learners’ understanding of ways in which meanings can be shaped – particularly in relation to Shakespeare and drama – will support their further study within the subject. Finally, this also supports learners to appreciate the text from the outside: as a conscious construct, a myriad of the writer’s choices, and the characters and plot as vehicles to carry the text’s meanings.

Read on for four free resources to help your learners develop in AO2…

Assistant Director’s blog: week 1

The weekly blog by the Assistant Director takes learners behind the scenes of a theatre production. For AO2, this is helpful to reiterate the form, as the process – and fluidity – of interpretation of drama texts is brought to the fore: this is what we mean by “text in performance”.

The lesson activity accompanying week 1's blog looks at how Romeo changes his speech when speaking to Mercutio as opposed to speaking to Juliet, and what Shakespeare is therefore trying to suggest about his character. As well as familiarisation with different parts of the play, the comparative element draws on a higher-order thinking skill.

This activity is invaluable in foregrounding the form: as James Stredder notes, plays “are essentially speech utterances” (2009). It begins by grounding the real-world application of communication accommodation theory (see Howard Giles), applying this to Shakespeare's craft. The text-work starts with reading aloud to allow pupils to feel the different meanings and effects of each Romeo-construction (speech!). Learners then return to the blog to examine the “how” of these constructions, comparing the use of verse and prose.

Character interviews: Mercutio

This resource uses an interview with the actor playing Mercutio as a springboard for exploration. Linked to AO2, this is another way of emphasising the form and its impact on interpretation. The activity invites learners to examine textual evidence in order to decide to what extent they agree with the actor's interpretation. To add challenge, learners are asked to compare Mercutio's language with Romeo's on a particular theme: love. This pushes learners to unpick how each character's speech is used as a vehicle to convey different conceptions of love.

The next activity uses the actor's interpretation to analyse the impact Mercutio's character has on the dramatic structure: they compare Mercutio's timeline with the main events of the play, and consider to what extent Shakespeare uses Mercutio to drive the events that lead to the tragedy. AO3 is integrated with AO2 through the option to debate Mercutio's primary purpose as exploring the relationship between comedy and tragedy.

Both of these activities demand learners use references from different parts of the play and use a range of higher-order thinking skills to draw out the effect of Shakespeare's choices in constructing Mercutio.

Assistant Director’s blog: week 3

One of the most complex, but also wonderfully rich, episodes in Romeo and Juliet is Mercutio's Queen Mab speech. The week 3 blog provides an insight into how the cast worked with this, and the accompanying lesson activity builds on this. It starts by asking learners to draw the images Mercutio creates at each stage of the speech (bar the last one), which helps in untangling the meaning. They then specify which words and phrases contributed to each section of their drawings, supporting with the precision of their analysis.

Learners then create freeze-frames of each image, reflecting on which words and phrases have had the greatest effect. The chronological sharing of these freeze-frames facilitates an interrogation of the structure: how does the speech change as it progresses? Learners then predict what the last image of the speech might be. After the revelation, read-aloud work furthers the focus on learners making choices about which words create the greatest effect here, only afterwards drilling down into language techniques. Learners finally consider how the messages within this speech could link to the wider themes of the play.

Article: Love and Hate

This resource is comprised of an article from the production programme on the language of love and hate in Romeo and Juliet, with accompanying lesson activities. The article deepens understanding of antithesis and oxymoron by exploring the relationship between them and providing examples from the play; however, perhaps most crucially, it models the relationship between the writer's message and how this is expressed in the language patterns of the play.

Patterns are key here: the lesson activities focus on speeches by Romeo and Juliet from different parts of the play to examine how Shakespeare uses the oxymoron to link the eponymous characters while simultaneously drawing important distinctions between them. Thus, learners are asked to analyse language and then consider how the structure impacts on the meaning of each instance.

To access these resources, plus a wealth of additional resources to support a challenging curriculum, visit 2019.playingshakespeare.org. Remember: the website tracks the production so please keep coming back to see what else we have added!

Tags:  English  free resources  GCSE  KS3  KS4  literacy  literature  questioning  reading  Shakespeare 

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6 top tips to develop collaborative problem-solving skills

Posted By King Edwin Primary School, 12 March 2019
Updated: 06 August 2019
Helping learners develop collaborative problem-solving skills requires careful planning to ensure all are engaged and challenged. In this blog post, Anthony Bandy, Assistant Head Teacher at King Edwin Primary School, shares six top tips drawn from his experience of participating in the NACE/NRICH ambassador scheme.

Inspired by research highlighting key skills and attributes for the next generation of citizens and employees, NRICH has created free resources to help learners develop mathematical “habits of mind” at primary and secondary levels – focusing on resilience, curiosity, thinking and collaboration. Each of these four key areas is broken down into different strands of maths, making it easy for activities to be delivered as part of regular maths sessions.

When using these resources to help learners develop collaborative problem-solving (CPS) skills, here are six top tips for effective implementation…

1. Explore perspectives on collaboration

When conducting research on effective approaches to developing collaborative problem-solving skills, the NRICH team discovered something they hadn’t even thought of. When asked about working with numbers, one in three surveyed learners said they felt working together was actually cheating! This is useful to bear in mind. Spend some time exploring existing perspectives on collaboration in your class and school – you may need to work on changing learners’ (and possibly teachers’) attitudes to collaborative learning.

2. Use “think, pair, share”

Before some collaborative activities, some learners will need a bit of time to get their head around the problem. “Think, pair, share” is a great way to facilitate this, allowing time for independent thinking as well as collaboration. Learners start by working independently, thinking about the problem for themselves and making notes if they wish. They then discuss the problem in pairs and/or as a group, working around a shared large sheet of paper to discuss their answers, reasoning and strategies as they go along – great for developing maths talk.

3. Consider group size

Some learners do not like working in large groups. In addition, the smaller the group, the higher the participation level of each child; larger groups could initiate passive learning. Consider group sizes before delivering the session – perhaps offer the option to work in twos, threes or fours.

4. Allocate roles and responsibilities

One strategy for developing collaboration is to give learners allocated roles and responsibilities. This can be used in all teaching and learning sessions, giving learners a chance to try out different roles, and increasing participation levels. For example, you could have a Chief Noticer, tasked with noting down ideas using a whiteboard. Your Chief Questioner could be asking questions, such as “What do we notice? How do you know?” You could also have Chief Explainers, Chief Justifyers and so on…

5. Choose activities with different learners in mind

A common concern when planning collaborative activities: how are you going to stop one learner taking over? To ensure all learners are motivated and empowered to participate, try to choose activities that will appeal to different interests and strengths. For instance, in NRICH’s Olympic measures activity, learners who are not usually highly engaged with maths, but who love and know about sports, can become the most important people in the room.

6. Encourage learners to reflect

At the end of each session, ask learners to rate themselves and their partner in terms of collaborative skills. If not a five out of five, what was missing? Why? Build in time to discuss collaboration and what skills are needed to be successful.

Tags:  collaboration  free resources  maths  problem-solving 

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5 steps to develop collaborative problem-solving in maths

Posted By Ems Lord, 05 March 2019
Updated: 08 April 2019
Ems Lord, Director of the University of Cambridge-based NRICH project, shares five key factors to consider when planning collaborative problem-solving (CPS) sessions using low-threshold, high-ceiling maths resources.

Have you ever attempted assembling flat-pack furniture with a friend or family member? How did it go? And are you still talking to one another?

Being able to work with others is a key life skill, but not always as straightforward as we might like. Whether we’re assembling furniture, putting up an extension or navigating our way to a holiday rental, we need to be able to work together towards a common goal and recognise our own responsibilities in achieving that goal. Moreover, developments such as driverless cars and drones signpost an increasingly automated environment in which those with strong group-working and problem-solving skills will thrive.

It is essential that we understand how to help learners develop collaborative problem-solving (CPS) skills alongside a sufficient level of challenge – planning lessons that will stretch more able learners while being accessible to all.

To this end, NRICH worked with 10 Cambridgeshire schools and the Cambridgeshire Maths Team in a project sponsored by Nesta. We shared existing low-threshold, high-ceiling NRICH resources with participants, who then adapted these to develop CPS in their own classes. After visiting each school, talking with teachers and running focus groups with learners, we identified five key aspects of CPS to consider when planning maths lessons:

1. Use low-threshold, high-ceiling activities

First and foremost is the importance of low-threshold, high-ceiling (LTHC) activities and resources. These enable all learners to get started on a problem while also offering sufficient challenge. One of NRICH’s most popular LTHC activities is the Factors and Multiples Game, which challenges learners to work together to build as long a chain as possible. Be warned: it’s hopelessly addictive for adults too!

When choosing LTHC tasks, explore our free curriculum mapping documents for primary, secondary and post-16 provision.

2. Get learners hooked

Engaging tasks are key for CPS sessions; learners must want to solve the problem. At NRICH, we aim to engage learners by designing activities which have a clear “hook” – such as the interactive challenge Got It! and the sports-themed activity Olympic Records.

Got It! requires learners to pit themselves against the NRICH computer to be the first to reach 23. This challenging activity draws learners in and they often make multiple attempts at the problem. Several of our focus group participants said they later taught the game to older siblings and family members because they thought they could outwit them.

The group activity Olympic Records is particularly appealing to learners with an interest in sports, who can draw on their knowledge to support others to match sports to their graphs. It demands effective group work and a willingness to adjust initial responses once learners realise that gender is also an important factor.

3. Model individual roles and responsibilities

A group is only as good as its individual members. Every member of the group must know what is expected of them during the task, and which roles belong to others. Individual learners should not dominate the session but should focus on filling their own roles while supporting others.

Card activities often work well in developing these skills; for example Shape Draw. Be clear about roles; which individual is responsible for recording the activity, suggesting the next shape or rolling the die? Make sure everyone knows their role and consider rotating different roles around the group. Teachers participating in our CPS project stressed the importance of modelling different roles for group members before embarking on the actual group work.

4. Develop skills for group communication

While knowing their own role is important, learners also need to be aware of the overall aims of the group. This changes the level of challenge for any task from merely cooperating to fully collaborating. In particular, all learners should be prepared to feedback to the wider class about their task.

Useful activities which offer a high level of challenge for older learners and the opportunity to feedback and explore different approaches include Steel Cables and Kite in a Square. Younger learners might enjoy the challenge of Jig Shapes and Quad Match.

5. Build in time for reflection

CPS skills need time to develop. Timetables should allow for regular CPS teaching sessions, including time allocated for reflection. Building in this reflection time can be a challenge, as time is also needed to focus on developing the required mathematics and group-working skills – but the teachers in our project stressed that it was highly worthwhile.

Ask learners about how well they worked in a group. If they awarded themselves a score from 1 to 5, what would it be and why? Which areas of their group work do they need to develop further? From a teaching perspective, when will they get their next opportunity to work on those areas?

And for your own reflection… If your class attempted one of our tasks, how do you think they might cope? Which aspects do you anticipate offering the most challenges? More importantly, when are you planning to lead the next CPS session with your class?

Further reading

Ems Lord has been Director of NRICH since 2015, following a previous role leading one of the country's largest Mathematics Specialist Teacher Programmes. Ems has taught mathematics across the key stages, from early years to A-level Further Mathematics, and has worked in a variety of settings, including a hospital school. She’s supported schools as a leading mathematics teacher, local authority consultant and Chartered Mathematics Teacher, and has taught mathematics education on both BEd and PGCE teacher programmes. She is currently working on her PhD thesis, which explores approaches to improve support for those learning calculation skills, and is President-Elect of the Mathematical Association for 2019-2020.

Tags:  collaboration  free resources  maths  problem-solving 

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Rethinking Romeo and Juliet: four free resources for GCSE English

Posted By Charlotte Bourne, Globe Education, 12 February 2019
Updated: 08 April 2019
Shakespeare’s tragic tale of young love rarely fails to capture the imagination, but how can you help learners approach it with a fresh perspective – interrogating, comparing, contextualising and analysing in depth? Charlotte Bourne, Deputy Head of Learning at Shakespeare’s Globe, shares four free resources to breathe new life into your English literature lessons…

Every March, Shakespeare’s Globe becomes a cauldron of excitement as our high-octane, flagship education project, “Playing Shakespeare with Deutsche Bank” begins. We provide 18,000 free tickets to a full-scale Shakespeare production tailored for 11-18 year olds. Alongside this, each year we create a dedicated website that complements and tracks the production. Although our free tickets target London and Birmingham state schools, the website is open to all, completely free, and doesn't require any sign-up; it forms part of the Globe's commitment to making Shakespeare accessible for all. This article highlights four resources from our 2019 website on Romeo and Juliet and explains how these could be used to address the needs of more able learners, within a context of challenge for all. Whilst these explanations focus on GCSE English literature, the resources can all be adapted to provide any learner with the opportunity to “[read], understand and respond to texts... and develop an informed personal response.”

1. Language: director's edit

Our “script machines” display the script of five key scenes from the play, but with a twist: you have the option of showing the director's edit. This enables you to unpick AO2 more organically with learners, because the interplay between language (Shakespeare's text) and form (a script to be edited for the stage) becomes apparent. For example:

Juliet: O, sweet my mother, cast me not away!
Delay this marriage for a month, a week;
Or, if you do not, make the bridal bed
In that dim monument where Tybalt lies.

  • What do the cut lines convey in terms of meaning?
  • What does removing them achieve?
  • What meaning is the director drawing our attention towards, or away from, through this edit?

This serves as a reminder that, in any performance text, there is more than one conscious construct at work. Although learners will need to know the whole text, the “meanings and effects” (AO2) has a greater plurality when considered in this light.

Indeed, this can also lead to discussions around the context: the origins of Shakespeare's writing, shaped by the theatre practices of his day, mean that even modern editions of the same, full play-text may differ. What an audience receives, therefore, is already layered with interpretation.

2. Language: literary terms

This part of the resource gives learners the opportunity to identify where certain literary techniques are being used by Shakespeare, across five key scenes. This can be used as a revision tool, but why not use it to model the thought processes in understanding how these techniques work to create meanings and effects? This moves learners away from the fallacy of technique-spotting, and can be adapted for KS3 and KS4.

With this in mind, several techniques in each scene are broken down into a series of questions, on our Teachers’ Notes page. For example:

  • Tybalt describes the servants as “heartless hinds”. How does this metaphor show that Tybalt has a low opinion of the servants? Use the questions below to support your thinking.
  • What possible meanings does the word “hind” have?
  • How about the word “heartless”? Hint: remember that Shakespeare’s audience would have heard the play; “heartless” could also therefore be heard as “hart-less”. How could this link to “hind”?
  • Consider the effect of the alliteration in making this link.
  • How does this contribute to the servants’ definition of masculinity set up in the opening exchange between Sampson and Gregory?

To extend the challenge, learners could then create their own questions to deconstruct other techniques. Creating these questions demands higher-order thinking, as learners need to be at Bloom's level of “analysis” before attempting this. To scaffold them up to this level of challenge, they could look at how the same technique is deconstructed in a different scene. This has the added benefit of highlighting the nuanced effects of the same technique used in different parts of the text.

3. Research articles: Brooke versus Shakespeare

Brooke's 1562 poem, “The Tragical History of Romeus and Juliet”, served as a key source for Shakespeare. So far, so bolt-on AO3. However, this resource allows learners to compare the differences between Shakespeare's prologue and Brooke's “argument”. It highlights how Shakespeare’s drama occurs over just five days, whereas Brooke’s poem unfolds over nine months, and that Juliet’s age is lowered from 16 to 13.

Drawing out these differences allows for rich exploration of writer's craft that cannot be separated from context, required for the top bands at GCSE.

  • Have learners compare the time reference in Brooke's “argument” with Shakespeare's prologue, and discuss what effect this might have.
  • Next, ask learners to find all the references to time within Shakespeare's version; what patterns do they spot? Why is it that time seems to pass so quickly in the play? Consider this also in light of Shakespeare's younger Juliet.
  • What meaning is being created through these marked changes to the original source material? If time is compacted and Juliet is younger, what might this suggest about the speed of young love?
  • How does the adaptation of form – from poem to play – affect how it is received?

4. Character interviews

Providing learners with the opportunity to engage with text in performance is a cornerstone of the work we do, and part of this involves providing access to actors taking part in the production.

Although learners wouldn't need to analyse actors' interpretations in their exam, the character interviews provide a window into hearing how someone else arrived at an informed, personal response (AO1). Questions cover: What are your initial impressions of your character(s)? What have you noticed about your character’s language, i.e. the way they speak to others/about themselves?

Characters are interviewed several times across the production, providing learners with opportunities to reflect on the complex nature of interpretation: how this can be revised with each more detailed exploration of the text.

To access these resources, plus a wealth of additional resources to support a challenging curriculum, visit 2019.playingshakespeare.org. Remember: the website tracks the production so please keep coming back to see what else we have added!

Charlotte Bourne is Deputy Head of Learning at Shakespeare’s Globe, with a focus on learners aged 3-18, plus the educators who support them. The Globe’s on-site Lively Action programme welcomes close to 80,000 learners per year, while its international outreach work sends practitioners to China, the US and Europe. A qualified English teacher and AQA examiner for GCSE Literature, Charlotte has worked closely with ITTs and NQTs across multiple subjects.

Tags:  English  free resources  GCSE  KS3  KS4  literature  Shakespeare 

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5 ways to help young people develop “science capital”

Posted By Beth Hawkins, 08 February 2019
Updated: 08 April 2019
Do the young people in your school feel confident engaging with scientific concepts, terminology, experiences and thinking? Do they believe science is “for them”? In this blog post, Science Museum Group (SMG) Academy Manager Beth Hawkins shares five ways teachers can help learners develop “science capital” – promoting more positive perceptions of, attitudes towards and aspirations within the sciences.

To read more about the research behind these recommendations, click here.

1. Personalise and localise your content

The more we can relate science content to what matters in learners’ lives and local communities, the more we can create “light bulb moments” where they can see the personal relevance and feel closer to the topic. This is more than contextualising science through world events or generic examples; it is about taking some time to find out about the current interests and hobbies of the individual learners in your classroom. This might include discussing how forces link to a local fair or a football match, or how understanding the properties of materials or chemical reactions can help when baking or cooking at home.

2. Show how many doors science can open

Many young people see science as a subject that only leads to jobs “doing science” – working alone in a laboratory or in a medical field. Yet from fashion and beauty to sports and entertainment, business or the military, nearly all industries use science knowledge and skills. Demonstrate that science can open doors to any future career, to help young people see the value and benefit of science to their future.

For ideas and guidance on linking learning to the world of work, log in to the NACE members’ site for the NACE Essentials guide to CEIAG for more able learners.

3. Widen perceptions about who does science

Science seems to have a bit of an image problem. If you search online for images of scientists, your screen will be filled with hundreds of images of weird-looking men with wild hair, wearing white lab coats and holding test tubes or something similar. Scientists are often portrayed similarly in the popular culture that children are exposed to every day – it is no wonder many young people find it hard to relate. Take every opportunity to show the diversity of people who use science in their work or daily lives so that learners can see “people like me” are involved in science and it isn’t such an exclusive (or eccentric) pursuit.

4. Maximise experiences across the whole learning landscape

Young people experience and learn science in many different places – at school, at home and in their everyday life. No single place or experience can build a person’s science capital, but by connecting or extending learning experiences across these different spaces, we can broaden learners’ ideas about what science is and open their eyes to the wonders of STEM. Link out-of-school visits and activities back to content covered in the classroom. You could also set small related challenges or questions for learners to investigate at home or in their local area.

5. Engage families and communities

Our research has found that many families see science as simply a subject learned in school, not recognising where and how it relates to skills and knowledge they use every day. All too often we hear parents saying, “I am not a science-y person”, “I was terrible at science in school” or even “You must be such a boffin if you are good at science.” When young people hear those close to them saying such things, it is not surprising that a negative perception of science can start to grow and the feeling “this is not for me” set in.

Encourage learners to pursue science-related activities that involve members of their family at home or in their local community. Model and encourage discussions which link science to young people’s interests – this will help to show the relevance of science and normalise it. For specific ideas, check out The Science Museum’s free learning resources.

Additional reading and resources:

Beth Hawkins is the Science Museum Group (SMG) Academy Manager. She has been working in formal and informal science education for over 22 years, including roles as head of science in two London schools. Since joining the Science Museum, she has developed and delivered training to teachers and STEM professionals nationally and internationally, and led many of the SMG’s learning research to practice projects. The Science Museum Group Academy offers inspirational research-informed science engagement training and resources for teachers, museum and STEM professionals, and others involved in STEM communication and learning.

Tags:  access  aspirations  free resources  science  STEM 

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Science capital: what is it and why should schools care?

Posted By Beth Hawkins, 08 February 2019
Updated: 08 April 2019
You’ve probably heard of cultural capital, but what about science capital? In this blog post, Science Museum Group (SMG) Academy Manager Beth Hawkins outlines recent research on young people’s engagement with and attitudes to science – and how understanding this can help schools increase take-up of STEM education and career paths.

At the Science Museum, engaging people from all backgrounds with science, engineering, technology and maths is at the heart of what we do. Over the past six years, we’ve been working with academic researchers on a project called Enterprising Science, using the concept of science capital to better understand how young people from all backgrounds engage with science and how engagement can be increased through different science-related experiences.

Recent research conducted by University College London with over 40,000 young people across the UK found that while many find science interesting, few are choosing to study science post-16, or consider pursuing a career in science. This is because they struggle to see that science is “for them” or relevant to their lives.

Why should we care?

In one way or another, science is continually changing and improving the way we live. It makes and sustains our society and will help us understand and solve the big questions our world faces. It is a creative and imaginative human endeavour, a way of thinking, asking questions and observing the world around us.

As such, science can open doors and can be invaluable in almost any job, across any sector. It is predicted that by 2030 the UK will have over 7 million jobs that need STEM skills, and it has been recognised that science can help broaden young people’s life choices and opportunities by keeping their future options open, especially among lower socioeconomic groups.

What is “science capital”?

Science capital is a measure of your attitude to and relationship with science. It is not just about how much science you “know”; it also considers how much you value science and whether you feel it is “for you” and connected to your life.

Imagine a bag or holdall that carries all the science-related experiences you have had. This includes what you have learned about science; all the different STEM-related activities you have done, such as watching science TV programmes or visiting science museums; all the people you know who use and talk about science; and whether science is something you enjoy and feel confident about.

How can science capital research be used?

At the Science Museum, we’ve been using science capital research to reflect on how we develop and shape our learning programmes and resources for schools and families. The research also underpins the training we deliver for teacher and science professionals through our new Academy.

For schools, the researchers have developed a science capital teaching approach that can be used with any curriculum.

The research suggests a science capital-informed approach can have the following benefits for learners:

  • Improved understanding and recall of science content
  • Recognising the personal relevance, value and meaning of STEM
  • A deeper appreciation of science
  • Increased interest in/pursuit of STEM subjects and careers post-16
  • Improved behaviour
  • Increased participation in out-of-school science activities

Ready to get started? Discover five ways to help young people develop science capital.

Additional reading and resources:

Beth Hawkins is the Science Museum Group (SMG) Academy Manager. She has been working in formal and informal science education for over 22 years, including roles as head of science in two London schools. Since joining the Science Museum, she has developed and delivered training to teachers and STEM professionals nationally and internationally, and led many of the SMG’s learning research to practice projects. The Science Museum Group Academy offers inspirational research-informed science engagement training and resources for teachers, museum and STEM professionals, and others involved in STEM communication and learning.

Tags:  access  aspirations  free resources  research  science  STEM 

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5 steps to improve your use of NRICH

Posted By King Edwin Primary School, 15 January 2019
Updated: 06 August 2019
You may already be using the free maths resources provided by the University of Cambridge’s NRICH project – but are you getting maximum impact from them, for all your learners? In this blog post, Anthony Bandy, Assistant Head Teacher at King Edwin Primary School and a participant in the NACE/NRICH ambassador scheme, shares five ways to rethink and improve your approach…

Before joining the NACE/NRICH ambassador programme, I honestly thought I was using NRICH correctly… However, since accessing the programme, I have come to realise that I was not even close to using the resources to their full potential!

Like many others, I had previously used NRICH simply as an extension activity for the more able. However, NRICH is in fact based on a “Low threshold, high ceiling” approach – basically meaning that all learners can access the resources, and push themselves to what they want to achieve.

Following my participation in the NRICH ambassador training, and subsequent opportunities to share this training within my own school and more widely, here are five steps to get maximum value from NRICH for all learners in your maths lessons…

1. Look beyond “maths mastery”

When the new maths curriculum arrived, our school had some very negative data, with problem solving and reasoning causing the biggest issues. Our response was to focus on maths mastery.

However, during my first training session as an NRICH ambassador, it became apparent that mastery is only a method of delivering maths; it is not a government expectation, and it is also not necessarily sufficient to fully meet the needs of all young mathematicians.

You can read more about the NRICH perspective on mastery here.

2. Use NRICH throughout each unit of work, for all learners

As a school, we changed how we delivered mathematics. We’ve adopted a “Six Stages of Learning” approach, which involves teaching, fluency, problem solving, reasoning, hybrid and mentoring for every objective, and is also developmental for individual learners.*

Importantly, NRICH is not just used towards the end of units. In some classes, NRICH activities have been used to introduce topics. For example, the “Swimming Pool” activity was used in Year 5 to introduce the concept of negative numbers. This worked really well, with children having to think of various potential concepts.

In addition, we decided to further implement our stages of learning by including NRICH as our Stage 5 (hybrid stage). We agreed that when the curriculum mapping resource permits and there is an activity available (see below), teachers will implement the activity for all learners to access, giving all individuals the exposure to problem solving and reasoning activities.

3. Incorporate NRICH in planning

As the NACE/NRICH ambassador, I delivered a training session for all staff. We looked closely at the curriculum mapping resources on the NRICH website, outlining links between mathematics objectives and NRICH activities. This resource definitely helped teachers to plan for NRICH activities in their lessons, rather than simply “throwing in” an activity as an extension or filler.

During the training, we also focused on how to use the NRICH resources to their full potential, looking at how NRICH provides guidance on questioning, starting points and solutions.

4. Encourage learners (and teachers) to explore multiple solutions

Prior to the training, some staff had mentioned feeling unsure about the solutions. We’d also found that our more able learners sometimes struggled when asked to think of a different approach to a problem. In their minds, they already knew the right answer, so therefore didn’t need to find another way. We asked ourselves “Are these types of learners true ‘problem solvers’, if they only know one way to solve a problem?”

The NRICH solutions pages have proven useful for both teachers and learners, giving examples of what a good solution might look like – and reminding both groups that there may be more than one “right” answer. More likely than not, there will be a variety of different solutions. In order for learners to develop as confident problem solvers, it’s important that they can find and understand a variety of approaches.

5. Embrace the “low threshold, high ceiling” approach

Sharing the published solutions has exposed all learners to examples of excellent quality reasoning, which is then reflected in their own practice. A fantastic example of this, along with the “low threshold, high ceiling” approach, came during a Year 5 lesson exploring the topic: “What came first – the chicken or the egg?”

With this topic in mind, we looked at the “Eggs in baskets” activity, which is predominantly a KS1 problem. In the lesson, all learners were able to have a go at the activity, with most adopting a visual representation (e.g. circles as baskets), using trial and improvement to solve the problem. Once learners had been successful, I gave them printouts of the published solutions and asked them to try and work out how others had solved the activity.

I gave my most able learners copies of a solution completed by a secondary pupil, who had solved the problem using algebra. Without my guidance, I asked them to look at the algebraic solution and try to work out how it had been achieved. A short while later, they came to me and could explain the algebraic solution.

I then found a similar problem involving the Cookie Monster and cookies eaten per day. I asked my more able learners to try and solve it using algebra – simply from their experience with the previous activity. This emphasises the “low threshold, high ceiling” scope of NRICH – what began as a KS1 problem ended up as a KS3 problem, using algebraic equations!

The lesson was so successful that when delivering an NRICH session to 40+ schools at a Nottinghamshire Maths Network Meeting, I took a learner along to demonstrate their achievements and explain the processes behind them.

Impact and next steps…

Teachers in our school are now using NRICH more effectively and more of our learners are being exposed not only to crucial problem-solving skills, but also to important collaborative life skills.

Our 2017-18 results were our most successful since the new curriculum, and are on track to be beaten again. But even more importantly, when NRICH is mentioned in any class, learners respond with great enthusiasm, which demonstrates the productive disposition element of the five essential aspects to developing young mathematicians (read more on the NRICH website).

Our next steps as a school will be to deliver training on “working mathematically” and collaborative learning – a vital skill for all our learners to develop for their future studies and careers.

* For more information on the “Six Stages of Learning” or other approaches mentioned in this blog post, please contact the school via NACE.

Tags:  CPD  free resources  maths 

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10 ideas to improve your use of questioning in science

Posted By NACE, 15 January 2019
Updated: 12 July 2019

At last term’s NACE member meetup, hosted by The Science Museum, attendees shared tried-and-tested approaches to using questioning effectively to challenge all learners in science. Spanning all phases, and applicable across other subject areas, here are 10 ideas to try in your own classroom…

1. “Tinker time”

Rhian Roberts, Science Lead at Thomson House School, outlined the use of “tinker time” – time for learners to explore the question: “What do you know already?” As well as allowing teachers to assess current understanding and misconceptions to inform future planning, Rhian notes that this also allows pupils to take ownership of their learning, share knowledge with peers, and ask their own questions to move their learning forward.

A similar approach is used at Hydesville Tower School, where learners are prompted to list questions at the start of a new unit. Questions are then shared with peers for up-levelling using Bloom’s Taxonomy, and displayed to be addressed as the unit progresses. The impact, says Science Leader David Burnham, has included “increased ownership of learning, greater engagement, higher thought processes and a raised awareness of the broader scientific field.”

2. Question starters

At Ysgol Gyfun Garth Olwg, sentence stems are used to help learners develop increasingly challenging questions. For example, they might work as group to generate questions based on a photograph, using the following stems:

  • Why do you think…?
  • Can you explain why…?
  • What evidence can you find…?
  • Are there any other ways you could…?
  • How successful was…?

Groups then swap questions and suggest answers to those posed by their peers. Dr Nia Griffiths, Head of Science, says this approach has led to higher engagement and longer-lasting focus on the task, as well as developing independent learning skills.

3. Solo exploration, double-up, present

At Invicta Grammar School, a three-stage process is used to answer a set of questions, shared out across the class. First, learners work independently on the questions they’ve been given, with support and resources available to develop a detailed response and identify potential discrepancies. They then pair up, collaborating to develop responses further. Finally, they present their work to the whole class, speaking as the “expert” on the questions they have investigated.

“Having worked on two sets of questions, students are doing almost twice as much work in the time available,” says Assistant Director of Science Charlotte McGivern. “They also develop skills to support one another, and the ability to articulate their answers fully.” She recommends jotting down prompters on post-it notes to share with learners during the first stage, helping them to fully explore each question.

4. “Phone a friend”

Peer support is also used at Bardfield Academy, where learners are encouraged to “phone a friend” to help them answer a question in more depth. Science Coordinator Heather Weston says this has meant learners feel more confident about asking for support, as well as providing opportunities for more able learners to share and develop their understanding by explaining difficult concepts to their peers.

To implement this effectively, Heather recommends encouraging learners to attempt to answer the question themselves first, using the “phone” option as a secondary measure to add depth and detail. She also suggests discussing the approach with more able learners separately to ensure they are ready and willing to be the “friend” at the end of the line.

5. Pose, pause, pounce, bounce

This four-stage approach to questioning was shared by Louise Mayhook, a member of the science department at The Bromfords School and Sixth Form College. First, pose a question to the class. Next: pause. Ask students to think, think again, write down and refine their response. Once the tension has mounted… pounce! Choose a student to share his/her answer and pause again to allow time for this. Finally, bounce: ask another student to comment on the first response.

Louise explains that this strategy embeds the effective use of thinking time, encourages learners to make notes (freeing up working memory), extends thinking, and challenges learners to listen closely to peers in order to build upon others’ ideas and develop a shared response.

6. Bouncing questions

Returning to Invicta Grammar School, here again questions are “bounced” from learner to learner – starting with a fairly simple question, and moving up through increasing levels of challenge towards synoptic questions that link with other areas of study. Biology teacher Hannah Gorski explains that this approach helps to build confidence and teamwork, while allowing the more able to develop and verbally consolidate their understanding of challenging concepts and links between them.

In a similar approach, Burton Borough School also “bounces” questions around the class. This time, learners prepare their own questions to ask peers. The first student chooses another to respond, who answers and in turn chooses the next. The school’s Jeremy Price notes that this approach has supported the development of strong subject knowledge and enjoyment, with learners motivated to come up with challenging questions for their classmates.

7. What happened first?

At Charterhouse Square School, learners are challenged to identify the correct order of events in science-related timelines. Given a set of milestone scientific achievements, discoveries and inventions, learners discuss their ideas about which happened first, providing arguments to back up their chronology. For an example of this, the school’s Amie Dickinson recommends the electrical inventions timeline game available via The Ogden Trust website.

In a similar vein, Science Coordinator Damian Cook shared an example from Oliver House School in which learners are challenged to analyse the elements of a food chain, answering the following questions:

  • Why do you think this animal has been so successful at being at the top of the chain?
  • What would it take for this animal to lose its position at the top?

For an additional challenge, learners are asked to consider which animal the top predator had evolved from, providing evidence to support their answer. Damian notes that once learners become accustomed to this approach, “they start to think like scientists and stretch their minds, which benefits their other studies – I hope!”

8. Visual prompts

The use of visual prompts alongside challenging questioning was a recurrent theme at the meetup. Shona Butler, Science Lead at St Joseph’s Catholic Primary School, shared the Explorify website as a useful source of engaging images and videos to prompt questions and discussion. She says this approach has helped learners develop confidence in considering a range of ideas, explaining their ideas and justifying their responses.

The Basildon Academies’ Michael Frempong and Hayley Richards – Heads of Science for the Lower and Upper Academies respectively – also advocated the use of pictures or objects to stimulate thinking and discussion. They noted that this allows all learners to contribute, while providing ample scope for learners to ask their own questions – of the objects, the teacher and each other.

9. “Fact first” questioning

To challenge learners to think in more depth about a subject, Drapers’ Academy’s Luxy Thanabalasingham shared the “fact first” approach – starting by giving learners a fact and challenging them to investigate further by generating “how” and “why” questions. Learners may work independently or in pairs, progressing to share their questions and ideas with the wider group. This is an effective way to move on from simple factual questions, Luxy says, encouraging learners to develop their higher-order thinking skills.

10. Write your own exam question

Finally, Weston Favell Academy’s Charlotte Heffernan shared her use of an activity in which learners are challenged to create their own exam questions and accompanying mark schemes. To get started, she suggests providing an answer and asking learners to suggest the question, or providing a question and asking learners to create the mark scheme.

Learners could also be challenged to create questions appropriate for different ability levels, considering what the examiner would be looking for and how key skills and knowledge could be assessed. This approach allows for self-differentiation, Charlotte notes, and has improved learners’ independence in answering questions.

Member resources

  • Webinar: Effective questioning in science
  • Webinar: Science capital: putting the research into practice
  • NACE Essentials: Realising the potential of more able learners in GCSE science
  • NACE Essentials: Using SOLO Taxonomy to increase challenge in the classroom

To access these resources, log in to our members’ site.

Tags:  collaboration  free resources  independent learning  questioning  science 

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