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.
Posted By Roger Sutcliffe,
30 October 2025
Updated: 30 October 2025
Roger Sutcliffe, Director of DialogueWorks and Creator of the Thinking Moves A-Z
As Kate Hosey said in her blog post in 2022, some students – perhaps many – can “find it hard to motivate themselves to be more active in their learning”.
There may be various reasons for this, some of which may be related to social trends beyond the classroom. This blog post is not intended to offer a cure for all of those!
What it offers is a simple suggestion, that students might be more engaged with their learning if they saw it as a way of developing skills for life – followed by another, as to how that desired outcome might be reached.
What do we mean by ‘learning’?
The word ‘learning’ is ambiguous between content – what is learnt – which is typically ‘subject’-based, and process – the daily slog, and sometimes satisfaction, of ‘studying’.
Many students, if not most, see learning predominantly as the former – the acquisition of stipulated knowledge, rather than the development of smart skills for life.
But what could be smarter than cognitive – essentially, thinking – skills? (Well, perhaps metacognitive ones – but watch this space!)
If only the teaching and learning process explicitly promoted and practised such skills, then maybe, just maybe, more students would value and engage with the process.
How could this ideal be reached? The key is in the word ‘explicitly’. Any taught lesson, at any level and in any subject, demands of the students a variety of thinking skills. (If not, it cannot be worth its salt!)
How often are these demands spelled out? To be fair, the best teachers will do this, if not in advance of a learning task, then afterwards, by way of explaining how it could have been done better.
But there are still two challenges to be overcome.
Developing a shared language for thinking skills
I recognised the first of these challenges about 15 years ago, when I was commissioned to teach some teachers (more) about thinking skills. It is that there is no common language for teachers and learners to talk about thinking skills, nor indeed any appreciation of the full range of such skills.
That was when I set about creating Thinking Moves A-Z, a list of the 26 most fundamental cognitive skills – which has the further merit of being easy to learn and use.
This scheme enables teachers to be clear what sorts of thinking they are expecting students to practise in any given lesson. Typically, they might highlight two or three metacognitive ‘moves’ per lesson for the students to focus on, but over a term or year they might aim to cover as full a range as possible.
The second challenge is that, ultimately, the aim is for students not only to be more aware of their capacity for different sorts of thinking – what I sometimes call their ‘brain powers’ – but to practise those skills independently: to see themselves as, and indeed to be, ‘good thinkers’.
That, of course, is the point at which those skills can properly be called ‘metacognitive’ – when students are not just thinking about their thinking, but doing so with purpose and with proficiency.
Inspiration, aspiration, and commitment
But I must return to the main question of this blog, namely how to get students to appreciate this ultimate aim, and to engage with it.
As to the appreciation, I have already hinted that simply providing students with a common and complete vocabulary for thinking about thinking is likely to be interesting, if not inspiring, to them.
What student would not be impressed to be told that their brain/mind is capable of 26 different ‘moves’, and indeed has been making them daily – but without their even realising it?
And then what student would not aspire to become better at some, if not all, of these moves – to become ‘good’ at thinking AHEAD (predicting or aiming), for example, or thinking BACK (remembering or reflecting)?
Of course, some students will still need to be encouraged – motivated – to commit themselves to this aspiration, and to the journey involved.
Getting better at EXPLAINING, for example, involves long-term commitment to expanding one’s vocabulary, and to deploying words with care.
Getting better at WEIGHING UP (evaluating) involves deep commitment to open-mindedness and fairness.
And getting better at balancing ZOOMING OUT and ZOOMING IN involves commitment to the move most fundamental for metacognition – being able to step back from time to time and look at the whole picture, before deciding which aspect to focus on next – a balancing cycle we all repeat all the time, again usually without realising it.
Unlocking the full benefits of metacognition
Metacognition is not just the ability to manage your thinking better in various ways. It is the ability, I maintain, to manage your whole self – your feelings and actions as well as your thinking.
That includes the ability to recognise what is in your interest as well as what you are interested in, and to commit to some actions that might not be as appealing as others.
I realise that it is asking a lot of young people to reach the level of self-awareness where they are completely self-motivated in this way. So, I repeat that young people need steady encouragement from their teachers to be better thinkers, as well as just better learners.
But I think that there is an even greater intrinsic value to becoming more metacognitive – more self-aware and more self-managing.
To sum up, then, I am saying that part of motivating students to become metacognitive is to spell out to them what metacognition is, so that they know how they could actively develop that capacity in themselves.
In my next blog post, I will do a bit more explaining of metacognition, since I think it is not as well understood, even by educationalists, as it might be. ‘Thinking about your thinking’ is a good starting explanation, but it lacks some vital ingredients. Other accounts are similarly too narrow, and rather formulaic.
Metacognition is potentially a key to fuller and richer living, not just more proficient learning. It should, then, be a driving concept for all schools and teachers.
Roger Sutcliffe is Director of DialogueWorks and Creator of the Thinking Moves A-Z. He taught at both junior and senior level (English and Maths) for over 25 years, and has been an independent educational consultant, specialising in Philosophy for Children and Teaching Thinking, for the last 25 years. He is a Fellow of the Chartered College of Teaching.
Roger is currently collaborating with NACE on a four-part course based on the Thinking Moves A-Z, open to schools across all phases and contexts. If you missed the first session, it’s not too late to join! Contact us to arrange access to the recording of Session 1, and live participation in the remaining three sessions.
Posted By Jamie Moseley,
30 October 2025
Updated: 03 November 2025
Several years ago as a staff we looked at creating shared curriculum principles that, regardless of subject, age or stage, provided a common language that we could work within. Fast forward to now and we continuously look for opportunities to embed our core principles:
One such way in which we do this is through our co-curricular offer where children are able to follow their passions and enhance their knowledge, skills and understanding in developing their learning. The Genius Club, run by our Head of Science, provides an opportunity for children to apply their learning to a variety of contexts and recently had outcomes beyond even our high expectations.
The challenge…
Within our school we have a House system which provides children with the chance to engage in friendly competition through a variety of challenges, one being a General Knowledge Quiz. The final for this contest was fast approaching and we envisaged the use of a buzzer system that would give the experience a real game-show feel. We approached the children of Genius Club to see if they would be keen to develop this idea, providing them with a brief to devise a system that would allow the four teams, each colour-coded, to buzz in to answer a question, and lock out those teams who did not respond the quickest.
The solution…
Of the group, one Year 6 child had a vision to create a wireless system using Raspberry Pi. Taking hold of their idea, they set to work and provided us with a shopping list of components totalling £250. Over budget, we sought resources from across our Foundation of schools and were able to source Raspberry Pi equipment. The child’s initial assessment was bleak, the components being not modern enough to realise the vision. Whilst many would have conceded defeat, the pupil adapted and re-designed their idea to utilise the equipment available and re-submitted their shopping list at a reduced budget of £50. Sourcing the equipment, the child set to work but time was running out. Just 48 hours before the event, the system was faltering and it looked like a commercial alternative would have to be sourced. With bed-time nigh, a 45-minute deadline was given... with patience, a passionate drive and determination, the device was completed and working as envisioned.
Outcome and next steps…
The event was held successfully, even more so as the buzzer system was put to task and ran seamlessly. This was critical thinking, challenge and creativity at its very best and allowed a child to pursue their vision diligently. To say we were impressed was an understatement. The coding knowledge and skills applied surpassed what our IT technician was able to offer, which highlighted how special this outcome was.
Quite rightly we lauded the pupil for their efforts and our senior school Head of Computing and Digital Literacy was equally in awe of their achievements.
The whole experience illustrated what is possible when children’s ideas are given the freedom to flourish and we were glad we were able to help nurture and facilitate the idea into reality. Our plan next is to achieve the original goal of being wireless and provide a network of buzzers so individual team members can buzz in.
How is your school giving children such real-life opportunities to apply their learning and nurturing the talent of tomorrow? Fingers on buzzers!
Fairfield Prep School is an independent co-educational school and part of a Foundation of schools located in Loughborough, Leicestershire, within the East Midlands. We cater for children aged 3 to 11, have been NACE accredited for several years and are now actively seeking Ambassador status. Our journey with NACE has changed our practice and challenged our thinking so that we embed the principle of challenge for all. We strongly believe in helping all learners achieve their potential and our work with NACE has helped foster an approach that helps us achieve this aim. Throughout our journey, we have developed an approach to embed STEAM, explored middle learners and developed more evidence-based approaches that allow children within our care to flourish. We hope to continue our NACE journey by networking with like-minded schools to challenge our own thinking and evolve practice for the benefit of children.
Lol Conway, Curriculum Consultant and Trainer for the Design and Technology Association
Throughout my teaching, inclusivity has always been at the forefront of my mind – ensuring that all students can access learning, feel included, and thrive. Like many of my fellow teachers, at the start of my teaching career my focus was often directed towards supporting SEND or disadvantaged students, for example. I have come to realise, to my dismay, that more able students were not high up in my consideration. I thought about them, but often as an afterthought – wondering what I could add to challenge them. Of course, it should always be the case that all students are considered equally in the planning of lessons and curriculum progression and this should not be dictated by changes in school data or results. Inclusivity should be exactly that – for everyone.
True inclusivity for more able students isn’t about simply adding extra elements or extensions to lessons, much in the same way that inclusivity for students with learning difficulties isn’t about simplifying concepts. Instead, it’s about structuring lessons from the outset in a way that ensures all students can access learning at an appropriate level.
I realised that my approach to lesson planning needed to change to ensure I set high expectations and included objectives that promoted deep thinking. This ensured that more able students were consistently challenged whilst still providing structures that supported all learners. It is imperative that teachers have the confidence and courage to relentlessly challenge at the top end and are supported with this by their schools.
As a Design and Technology (D&T) teacher, I am fortunate that our subject naturally fosters higher-order thinking, with analysis and evaluation deeply embedded in the design process. More able students can benefit from opportunities to tackle complex, real-world problems, encouraging problem-solving and interdisciplinary connections. By integrating these elements into lessons, we can create an environment where every student, including the most able, is stretched and engaged. However, more often than not, these kinds of skills are not always nurtured at KS3.
Maximizing the KS3 curriculum
The KS3 curriculum is often overshadowed by the annual pressures of NEA and examinations at GCSE and A-Level, often resulting in the inability to review KS3 delivery due to the lack of time. However, KS3 holds immense potential. A well-structured KS3 curriculum can inspire and motivate students to pursue D&T while also equipping them with vital skills such as empathy, critical thinking, innovation, creativity, and intellectual curiosity.
To enhance the KS3 delivery of D&T, the Design and Technology Association has developed the Inspired by Industry resource collection – industry-led contexts which provide students with meaningful learning experiences that go beyond theoretical knowledge. We are making these free to all schools this year, to help teachers deliver enhanced learning experiences that will equip students with the skills needed for success in design and technology careers.
By connecting classroom projects to real-world industries, students gain insight into the practical applications of their learning, fostering a sense of purpose and motivation. The focus shifts from achieving a set outcome to exploring the design process and industry relevance. This has the potential to ‘lift the lid’ on learning, helping more able learners to develop higher-order skills and self-directed enquiry.
These contexts offer a diverse range of themes, allowing students to apply their knowledge and skills in real-world scenarios while developing a deeper understanding of the subject and industry processes. Examples include:
Creating solutions that address community issues such as poverty, education, or homelessness using design thinking principles to drive positive change;
Developing user-friendly, inclusive and accessible designs for public spaces, products, or digital interfaces that accommodate people with disabilities;
Designing eco-friendly packaging solutions that consider materials, manufacturing processes, and end-of-life disposal.
These industry-led contexts foster independent discovery and limitless learning opportunities, particularly benefiting more able students. By embedding real-world challenges into the curriculum, we can push the boundaries of what students can achieve, ensuring they are not just included but fully engaged and empowered in their learning journey.
Find out more…
NACE is partnering with the Design & Technology Association on a free live webinar on Wednesday 4 June 2025, exploring approaches to challenge all learners in KS3 Design & Technology. Register here.
Holme Grange School's Tom Greenwood shares six steps to maximise the impact of your practical science lessons.
Science is more than just memorising facts and following instructions. True scientific thinking requires critical analysis, problem-solving, and creativity. Practical science provides the perfect platform for developing these skills, pushing students beyond basic understanding and into the realm of higher-order thinking.
Why challenge matters in science education
Practical science sits at the peak of Bloom’s revised taxonomy (Anderson & Krathwohl, 2001), requiring students not just to remember and understand but to apply, analyse, evaluate, and create. These skills are essential for developing scientifically literate individuals who can tackle real-world problems with confidence and insight.
Steps to maximizing the impact of practical science
To truly challenge students and develop their higher-order thinking, practical science lessons must be carefully structured. Here’s how:
Step 1: Solve real-world problems
Practical science activities should be grounded in real-world applications. When students see the relevance of their experiments, their engagement increases. For example, testing water purity or designing a simple renewable energy system connects scientific principles to everyday life.
Step 2: Get the groups right
Collaboration is key in scientific exploration. Thoughtful grouping of students – pairing diverse skill levels or encouraging peer mentoring – can enhance problem-solving and communication skills.
Step 3: Maintain a relentless focus on variables
From Year 5 to Year 11, students should develop a keen understanding of variables. This means recognising independent, dependent, and control variables and understanding their importance in experimental design.
Step 4a: Leave out a variable
By removing a key variable from an experiment, students are forced to think critically about the design and purpose of their investigation. They must determine what’s missing and how it affects the outcome.
Step 4b: Omit the plan
Instead of providing a step-by-step method, challenge students to devise their own experimental plans. This pushes them to apply their understanding of scientific concepts and fosters creativity in problem-solving.
Step 5: Analyse data like a pro
Teaching students to collect, visualise, and interpret data is crucial. Using AI tools to display class results can make data analysis more engaging and accessible. By linking their findings back to the research question, students develop deeper analytical skills.
Step 6: When practicals go wrong (or right!)
Failure is an integral part of scientific discovery. Encouraging students to reflect on unexpected results – whether positive or negative – teaches resilience, adaptability, and critical thinking.
Bonus step: Harness the power of a Science Challenge Club
A Science Challenge Club can provide a platform for students to explore scientific questions beyond the curriculum. Such clubs foster independent thinking and offer opportunities for students to work on long-term investigative projects, deepening their understanding and enthusiasm for science.
Final thoughts: why practical science is essential
Engaging students in hands-on science doesn’t just make lessons more interesting – it equips them with crucial skills:
Critical thinking: encourages deeper questioning and problem-solving.
Collaboration: strengthens teamwork and communication.
Real-world problem solving: helps students connect theory to practice.
As educators, we can design activities that challenge high-achieving students, encourage independent experiment design, and foster strong analytical skills. By doing so, we prepare students not only for exams but for real-world scientific challenges.
The future of science lies in the hands of the next generation. Let’s ensure they have the skills to think critically, innovate boldly, and explore fearlessly.
Amanda Hubball, Deputy Head and More Able Lead at Alfreton Nursery School, explores the power of metacognition in empowering young people to overcome potential barriers to achievement.
Disadvantage presents itself in different ways and has varying levels of impact on learners. It is important to remember that disadvantage is wider than children who are in receipt of pupil premium or children who have a special educational need. Disadvantage can be based around family circumstances, for example bereavement, divorce, mental health… Disadvantages can be long-term or short-term and the fluidity of disadvantage needs to be acknowledged in order for educators to remain effective and vigilant for all children, including more able learners. If we accept that disadvantage can impact any child at any time, then it is essential that we provide all children with the tools they need to navigate challenge.
More able learners are as vulnerable to the impact of disadvantage as other learners and indeed research would suggest that outcomes for more able learners are more dramatically impacted by disadvantage than outcomes for other children. A cognitive toolbox that is familiar, understood and accessible at all times, can be a highly effective support for learners when there are barriers to progress. By ensuring that all learners are taught metacognition from the beginning of their educational journey and year on year new metacognition skills are integrated, a child is empowered to maintain a trajectory for success.
How can metacognition reduce barriers to learning?
Metacognition supports children to consciously access and manipulate thinking strategies, thus enabling them to solve problems. It can allow them to remain cognitively engaged for longer, becoming emotionally dysregulated less frequently. A common language around metacognition enables learners to share strategies and access a clear point of reference, in times of vulnerability. Some more able learners can find it hard to manage emotions related to underachievement. Metacognition can help children to address both these emotional and cognitive demands.
In order for children to impact their long-term memory and fully embed metacognitive strategies, educators need to teach in many different ways. Metacognition needs to be visually reflected in the learner’s environment, supporting teachers to teach and learners to learn.
How do we do this at Alfreton Nursery School?
At Alfreton Nursery School we ensure that discourse is littered with practical examples of how conscious thinking can result in deeper understanding. Spontaneous conversations are supported by visual aids around the classroom, enabling teachers and learners to plan and reflect on thinking strategies. Children are empowered to integrate the language of metacognition as they explain their learning and strive for greater understanding.
Adults in school use metacognitive terms when talking freely to each other, exposing children to their natural use. Missed opportunities are openly shared within the teaching team, supporting future developments.
Within enrichment groups, metacognition is a transparent process of learning. Children are given metacognitive strategies at the beginning of enhancement opportunities and encouraged to reflect and evaluate at the end. Whether working indoors or outdoors, with manipulatives or abstract concepts and individually or in a group, metacognition is a vehicle through which all learners can access lesson content.
We use the ‘Thinking Moves’ metacognition framework (you can read more about this here). Creative application of this framework supports the combination of metacognition words, to make strings of thinking strategies. For example, a puppet called FRED helps children to Formulate, Respond, Explain and Divide their learning experiences. A QUEST model helps children to follow a process of Questioning, Using, Explaining, Sizing and Testing.
Metacognition supports children of all abilities, ages and backgrounds, to overcome barriers to learning. Disadvantage is thus reduced.
Moving from intent to implementation
Systems and procedures at Alfreton Nursery School serve to scaffold day to day practice and provide a backdrop of expectations and standards. In order to best serve more able children who are experiencing disadvantage, these frameworks need to be explicit in their inclusivity and flexibility. Just as every policy, plan, assessment, etc will address the needs of all learners – including those who are more able – so all these documents explicitly address how metacognition will support all learners. To ensure that visions move beyond ‘intent’ and are fully implemented, systems need to guide provision through a metacognitive lens.
Metacognition is woven into all curriculum documents. A systematic and dynamic monitoring system, which tracks the progress and attainment of all learners, ensures that children have equal focus on cognition and emotion, breaking down barriers with conscious intent.
At Alfreton Nursery School, those children who are more able and experiencing disadvantage receive a carefully constructed meta-curriculum which scaffolds their journey towards success, in whatever context that may manifest itself. Children learn within an environment where teachers can articulate, demonstrate and inculcate the power of metacognition, enabling children to be the best that they can be.
How is your school empowering and supporting young people to break down potential barriers to learning and achievement? Read more about NACE’s research focus for this academic year, and contact us to share your experiences.
Posted By Daisy Morley,
28 March 2022
Updated: 22 March 2022
Daisy Morley, primary teacher and history lead at Calcot Schools, outlines her approach to identifying and challenging more able learners in history – building historical knowledge, understanding and enquiry skills.
As a teacher it currently seems to me that a lot of attention is given to the children who need to meet age-related expectations. While these pupils’ needs are important and their needs must be met, this focus can mean that greater depth and ‘more able’ pupils are often forgotten. It is essential that more able learners are not neglected and are given ample opportunities to showcase their knowledge and shine.
History is one subject where, through careful consideration and planning, more able learners can thrive. Within this blog post, I will examine how to identify and challenge more able learners in history, in the context of primary teaching. These thoughts derive from personal experiences and from extensive research on the relevant literature and recent Ofsted reports. I will focus on ‘historical knowledge’, ‘historical understanding’ and ‘historical enquiry’ in order to suggest how we can think about challenging more able learners in history.
More able in history or just literacy?
Often, children whose strength lies in history will find that they are confident in literacy. Although strong literacy skills will greatly benefit their ability to share, form and communicate their ideas and findings, this does not necessarily mean that they are or will be more able historians. Interestingly, I think that the personal interests of children play a pivotal part in whether they have excelled in history beyond their age-related expectations. This is true from children as young as Year 1, to pupils nearing the end of their primary education. As educators, particularly if you are a subject leader, it is essential that time is taken to identify those children with a personal interest in history, and to provide them with opportunities to showcase their knowledge.
The building blocks: historical knowledge
First and foremost, the subject of history is rooted in knowledge; it is a knowledge-based subject (Runeckles, 2018: 10). While it is essential that pupils’ analytical skills are developed, this cannot be done without first ensuring that all pupils have a secure grounding in historical knowledge. This is also made clear in recent literature from Ofsted inspectors. Tim Jenner, HMI, Ofsted’s subject lead for history, has stated that when teaching history there must be an emphasis placed on content and knowledge (Jenner, 2021). In the most recent Ofsted reports, the term ‘knowledge’ has been divided into knowledge of ‘substantive concepts’, which relates to broader concepts, such as empire, monarch and economy, and ‘chronological knowledge’, which refers to the broader concepts within history, such as the key features of Anglo-Saxon England (Jenner, 2021).
The National Curriculum does expect pupils to “understand the methods of historical enquiry, including how evidence is used rigorously to make historical claims, and discern how and why contrasting arguments and interpretations of the past have been constructed” (DFE, 2013). The enquiry and analytical skills required to thrive in history are essential. However, these skills cannot be developed without first imparting the key historical knowledge to children.
Facts are the building blocks of history.
To emphasise this point, let us look at an example. Imagine a teacher wants to include a module on Boudicca in their history curriculum. Boudicca is listed in the National Curriculum for History under a non-statuary example, and has crucial ties with the statuary module on the Roman Empire and its impact on Britain. For the pupils to understand Boudicca’s historical significance, they would first need to have a secure grasp of the key features of the Roman Empire. Following this, they would then need to be taught the key components of Britain during this time. This knowledge would be essential before embarking on a specialised study of Boudicca. If the teacher then wished to hone and develop pupils’ analytical and enquiry skills, they could include a lesson on the conflicting sources that are available regarding Boudicca. To understand the primary written sources, however, they would first need to have a secure understanding of the historical knowledge of Boudicca, the Roman Empire, and the political landscape of Britain during this time.
Building historical knowledge takes time, as it requires a build-up of knowledge. As a result, educators may not see this accumulation of knowledge until a significant period of learning time has passed. Nevertheless, for children to develop their enquiry skills, historical knowledge is essential.
Developing historical understanding through open-ended questions
To see progression within a pupil’s historical understanding, historical knowledge, understanding and enquiry are best taught alongside one another. Historical knowledge and understanding are inextricably linked, and it would be difficult to separate these concepts within every lesson. Nevertheless, if a child is demonstrating the potential to achieve beyond the age-related expectations in history, their historical understanding could be one way to identify this – and thus to extend and challenge their learning. More able learners often process the key historical knowledge more quickly than their peers, which in turn means that they often quickly grasp the role of criteria in formulating and articulating an historical explanation or argument. Furthermore, more able learners are frequently able to draw generalisations and conclusions from a range of sources of evidence. One way to identify this could be ensuring that teachers ask open-ended questions, as the answers that children arrive at depend largely on questions asked.
I try to implement these open-ended questions in lessons, particularly across Key Stage 2. One approach which has worked particularly well came to light in a Year 3 lesson on “What did the diet of a typical Stone Age person encompass in prehistoric Britain?” This lesson relied on enquiry-based learning, which, although sometimes more difficult to deliver, lent itself well to inputting open-ended questions and highlighted the investigative nature of history. The children were given ‘organic evidence’ (pretend human waste), which pivoted around unpicking evidence and how historians use different types of evidence to find out about the past.
From this lesson, after unpicking our evidence, all of the children were able to deduce that prehistoric people ate nuts, seeds and berries. Pupils with a more advanced understanding were able to conclude that prehistoric inhabitants had to find food for themselves and that this is one of the reasons people from that time are called ‘hunter-gatherers’, because they had to hunt and gather their food.
For the children who had already come to the conclusions about hunter-gatherers, I asked more open-ended questions, which required them to draw their own conclusions, using the evidence that had been assessed, including “What about the meat?”, “Why haven’t we found meat in the organic evidence?” Some of these children were able to utilise their knowledge from previous lessons on Stone Age Britain and concluded that there were certain dangers in finding meat. They explained that people had to kill the animal and prepare it themselves, which was dangerous. One child even went on to say that meat also rots and that may have been why there was no surviving meat within the evidence. Although these open-ended questions help to stretch the more able learners, it does require teachers to direct the more challenging questions to the correct pupils, which relies on teachers knowing which of the pupils are excelling in history.
Making links: developing historical enquiry skills
I often find that historical enquiry skills are the hardest to master. From teaching this within lessons, it seems the key component to identifying the more able learners in history is to identify whether the pupils can link history together. Can they use their knowledge to comment on how the lives of people from the past have changed over time? Can they identify trends and commonalities between contemporary cultures? Do they notice how key changes transformed the lives and the culture of a particular civilisation? Perhaps most essentially, can the more able children use their historical knowledge and understanding to draw conclusions on events, people and places from the past? This relies on a pupil being able to problem-solve and reason with evidence, and apply this knowledge in order to evaluate the evidence in question.
Below is an example of a child’s work. The lesson was titled “What was bronze used for?”
I have chosen this example because this pupil was able to link their knowledge together, to form their own conclusions, which were based on key factual knowledge. For example, this child independently came to the conclusion that because their weapons were better, their quality of life improved. Amazingly, this pupil also commented on the fact that people from the Bronze Age in Britain no longer had to kill animals to make clothes, which meant that their lives really changed. Below is another example of a pupil drawing from their accumulated knowledge, in order to compare and contrast civilisations:
This is another example of a greater-depth learner in action. They had knowledge of Greece and Rome, and a battle that took place. Already, it is clear that they have an understanding of the cross-over and interaction between these two civilisations. Not only this, but they also know that trade took place between the two civilisations. Finally, they have commented on how this trade is clear from primary evidence. This pupil has not only demonstrated that they hold a secure knowledge of the Battle of Corinth, but they have also highlighted their ability to use evidence to draw their own historically valid conclusions.
To support and enable pupils to draw conclusions and analogies from historical sources, it is vital for the teacher to model how to do this (Runeckles, 2018:52). In mathematics, for example, you would not expect children to solve a worded problem on multiplication, which required reasoning, without first teaching them the basic skills of multiplication. How often do you model being a historian to your class?
For example, imagine you are teaching your class about the Spartans. The written sources on Sparta derive largely from sources written at a much later date, and not composed by Spartans. One could take an example from a Roman scholar (Aristotle or Plato) on the Spartan education system, the Agoge, and explain that these individuals were Roman and lived two hundred years after Classical Greece had ended. One could then ask, “How might that affect their account?” This sort of task could be implemented within a range of topics and encourages a dialogue between teachers and pupils. If these enquiry-based examples and questions are built into lessons, across modules, pupils are provided with opportunities to enhance their ability to analyse evidence and draw conclusions from a vast amount of evidence.
And finally…
Although I have separated the teaching of history into historical knowledge, historical understanding and historical enquiry, ultimately each of these elements is best taught concurrently. It is possible to include each of these aspects within one lesson, particularly as they are inextricably linked.
Perhaps most importantly, it is crucial to ensure that teachers are ambitious, not only with curriculum coverage, but also with regards to their expectations of pupils. Regardless of whether pupils have demonstrated that they are more able, children of all abilities thrive on high expectations and on knowing their teacher believes they can and will accomplish great things. So get your young historians thinking!
Dr Kirstin Mulholland, Content Specialist for Mathematics at the Education Endowment Foundation (EEF), shares a metacognitive strategy she’s found particularly helpful in supporting – and challenging – the thinking of higher-attaining pupils: “the debrief”.
Why is metacognition important?
Research tells us that metacognition and self-regulated learning have the potential to significantly benefit pupils’ academic outcomes. The updated EEF Teaching and Learning Toolkit has compiled well over 200 school-based studies that reveal a positive average impact of around seven months progress. But it also recognises that "it can be difficult to realise this impact in practice as such methods require pupils to take greater responsibility for their learning and develop their understanding of what is required to succeed” .
Approaches to metacognition are often designed to give pupils a repertoire of strategies to choose from, and the skills to select the most suitable strategy for a given learning task. For high prior attaining pupils, this offers constructive and creative opportunities to further develop their knowledge and skills.
How can we develop metacognition in the classroom?
In my own classroom, a metacognitive strategy which I’ve found particularly helpful in supporting – and, crucially, challenging – the thinking of higher-attaining pupils is “the debrief”. The debrief as an effective learning strategy links to Recommendation 1 of the EEF’s Metacognition and Self-regulated Learning Guidance Report (2018), which highlights the importance of encouraging pupils to plan, monitor and evaluate their learning.
In a debrief, the role of the teacher is to support pupils to engage in “structured reflection”, using questioning to prompt learners to articulate their thinking, and to explicitly identify and evaluate the approaches used. These questions support and encourage pupils to reflect on the success of the strategies they used, consider how these could be used more effectively, and to identify other scenarios in which these could be useful.
Why does this matter for higher-attaining pupils?
When working in my own primary classroom, I found that encouraging higher-attaining pupils to explicitly consider their learning strategies in this way provides an additional challenge. Initially, many of the pupils I’ve worked with have been reluctant to slow down to consider the strategies they’ve used or “how they know”. Some have been overly focused on speed or always “getting things right” as an indication of success in learning.
When I first introduced the debrief into my own classroom, common responses from higher-attaining pupils were “I just knew” or “It was in my head”. However, what I also experienced was that, for some of these pupils, because they were used to quickly grasping new concepts as they were introduced, they didn’t always develop the strategies they needed for when learning was more challenging. This meant that, when faced with a task where they didn’t “just know”, some children lacked resilience or the strategies they needed to break into a problem and identify the steps needed to work through this.
As I incorporated the debrief more and more frequently into my lessons, I saw a significant shift. Through my questioning, I prompted children to reflect on the rationale underpinning the strategies they used. They were also able to hear the explanations given by others, developing their understanding of the range of options available to them. This helped to broaden their repertoire of knowledge and skills about how to be an effective learner.
How does the debrief work in practice?
Many of the questions we can use during the debrief prompt learners to reflect on the “what” and the “why” of the strategies they employed during a given task. For example,
What exactly did you do? Why?
What worked well? Why?
What was challenging? Why?
Is there a better way to…?
What changes would you make to…? Why?
However, I also love asking pupils much more open questions such as “What have you learned about yourself and your learning?” The responses of the learners I work with have often astounded me! They have encompassed not just their understanding of the specific learning objectives identified for a given lesson, but also demonstrating pupils’ ability to make links across subjects and to prior learning. This has led to wider reflections about their metacognition – strengths or weaknesses specific to them, the tasks they encountered, or the strategies they had used – or their ability to effectively collaborate with others.
For me, the debrief provides an opportunity for pupils’ learning to really take flight. This is where reflections about learning move beyond the boundaries and limitations of a single lesson, and instead empower learners to consider the implications of this for their future learning.
For our higher-attaining pupils, this means enabling them to take increasing ownership over their learning, including how to do this ever more effectively. This independence and control is a vital step in becoming resilient, motivated and autonomous learners, which sets them up for even greater success in the future.
Dr Ems Lord, Director of the University of Cambridge’s NRICH initiative, shares three activities to try in your classroom, to help learners improve their use of mathematical vocabulary.
Like many academic subjects, mathematics has developed its own language. Sometimes this can lead to humorous clashes when mathematicians meet the real world. After all, when we’re calculating the “mean”, we’re not usually referring to a measurement of perceived nastiness (unless it’s the person who devised the problem we’re trying to solve!).
Precision in our use of language within mathematics does matter, even among school-aged learners. In my experience, issues frequently arise in geometry sessions when working with pyramids and prisms, squares and rectangles, and cones and cylinders. You probably have your own examples too, both within geometry and the wider curriculum.
In this blog post, I’ll explore three tried-and-tested ways to improve the use of mathematical vocabulary in the classroom.
1. Introduce your class to Whisper Maths
“Prisms are for naughty people, and pyramids are for dead people.” Even though I’ve heard that playground “definition” of prisms and pyramids many times before, it never fails to make me smile. It’s clear that the meanings of both terms cause considerable confusion in KS2 and KS3 classrooms. Don’t forget, learners often encounter both prisms and pyramids at around the same time in their schooling, and the two words do look very similar.
One useful strategy I’ve found is using an approach I like to refer to as Whisper Maths; it’s an approach which allows individuals time to think about a problem before discussing it in pairs, and then with the wider group. For Whisper Maths sessions focusing on definitions, I tend to initially restrict learner access to resources, apart from a large sheet of shared paper on their desks; this allows them to sketch their ideas and their drawings can support their discussions with others.
This approach helps me to better understand their current thinking about “prismness” and “pyramidness” before moving on to address any misconceptions. Often, I’ve found that learners tend to base their arguments on their knowledge of square-based pyramids which they’ve encountered elsewhere in history lessons and on TV. A visit to a well-stocked 3D shapes cupboard will enable them to explore a wider range of examples of pyramids and support them to refine their initial definition.
I do enjoy it when they become more curious about pyramids, and begin to wonder how many sides a pyramid might have, because this conversation can then segue nicely into the wonderful world of cones!
2. Explore some family trees
Let’s move on to think about the “Is a square a rectangle?” debate. I’ve come across this question many times, and similarly worded ones too.
As someone who comes from a family which talks about “oblongs”, I only came across the “Is a square a rectangle?” debate when I became a teacher trainer. For me, using the term oblong meant that my understanding of what it means to be a square or an oblong was clear; at primary school I thought about oblongs as “stretched” squares. This early understanding made it fairly easy for me to see both squares and oblongs (or non-squares!) as both falling within the wider family of rectangles. Clearly this is not the case for everyone, so having a strategy to handle the confusion can be helpful.
Although getting out the 2D shape box can help here, I prefer to sketch the “family tree” of rectangles, squares and oblongs. As with all family trees, it can lead to some interesting questions when learners begin to populate it with other members of the family, such the relationship between rectangles and parallelograms.
3. Challenge the dictionary!
When my classes have arrived at a definition, it’s time to pull out the dictionaries and play “Class V dictionary”. To win points, class members need to match their key vocabulary to the wording in the dictionary. For the “squares and rectangles” debate, I might ask them to complete the sentence “A rectangle has...”. Suppose they write “four sides and four right angles”, we would remove any non-mathematical words, so it now reads “four sides, four right angles.” Then we compare their definition with the mathematics dictionary.
They win 10 points for each identical word or phrase, so “four right angles, four sides” would earn them 20 points. It’s great fun, and well worth trying out if you feel your classes might be using their mathematical language a little less imprecisely than you would like.
More free maths activities and resources from NRICH…
A collaborative initiative run by the Faculties of Mathematics and Education at the University of Cambridge, NRICH provides thousands of free online mathematics resources for ages 3 to 18, covering early years, primary, secondary and post-16 education – completely free and available to all.
In March this year, NACE members had the opportunity to preview and trial a new maths game being developed by the team at NRICH – a University of Cambridge initiative providing free online maths resources that promote challenging, enriching learning experiences.
The game in question has now been launched, and in this blog post the NRICH team explain how it works, and how you and your learners can get playing.
Question: What happens when you bring together Tiddlywinks and football?
Answer: You get Phiddlywinks!
In this blog we’ll learn more about Phiddlywinks, including the charismatic mathematician who inspired the game and role of NACE members in bringing it to our screens.
What is Phiddlywinks?
Phiddlywinks is a strategy game for two players. The winner is the first player to get the white counter into the coloured region at the opposite end of the board. Player 1 is aiming for the blue region and Player 2 for the red region.
The game begins with the white counter in the centre circle.
Players take it in turns to either:
Place a black counter on the board or
Move the white counter.
The white counter moves by jumping in a straight line over one or more black counters. A player may be able to make more than one jump when it is their turn.
To get started, consider this screenshot from a game which is underway. Both players have chosen to use their turns to add black counters to the board (you’ll notice that the white counter remains in its starting position). It is Player 1’s turn. Can you see how Player 1 might move the white counter to win the game?
Here’s one possible winning move:
Player 1 clicks on 7E (or 8F) and the white counter moves to 9G
Player 1 clicks on 9F (or 9E) and the white counter moves to 9D
Player 1 clicks on 9C and the white counter moves to 9B
Player 1 clicks on 10B and the white counter will move to 11B, winning the game!
Do take some time exploring the interactivity. To help you learn to play the game, we’ve uploaded more mid-game scenarios here. You can also print off black and white or colour versions of the board.
Who was the inspiration behind Phiddlywinks?
John Horton Conway was a prize-winning mathematician who loved creating new games for all ages. He is best known to many for creating the Game of Life. He also developed a game called Philosopher's Football (also known as Phutball) which challenged players to manoeuvre a ball across a large grid towards their opponent's goal-line. Not surprisingly, the game soon became popular with his university students.
We have taken Phutball as the inspiration for our Phiddlywinks. We piloted the developmental version of the game with NACE members at a specially organised online event attended by both primary and secondary colleagues. The feedback from teachers attending NACE event, and the follow-up response from the classes of NACE members who kindly trialled Phiddlywinks with their classes, enabled our team to prepare the game for its release.
Phiddlywinks is almost identical to Philosopher's Football except that the white ball has become a white counter and the players have become black counters. The rules are the same but Phiddlywinks is played on a much smaller board. The way the counters move reminded us more of Tiddlywinks than football, hence the alternative name.
The NRICH team would like to acknowledge the support of NACE and its members who kindly trialled our initial version of the game, giving us invaluable feedback which informed the development of Phiddlywinks.
What maths games and activities have you and your learners been enjoying this year? Share your ideas in the comments below or in the NACE community forums.
Dr Keith Watson, NACE Curriculum Development Director
What I Talk About When I Talk About Running by Haruki Murakami is one of my favourite books… even if reading it did not make me run faster. The title did, however, lead me to ask students: “What do you think about when you think about learning?” This is not an easy question to answer. We increasingly recognise the importance of developing metacognition in learning and the need to challenge pupils cognitively, but this is not always easy in the mixed ability classroom.
In the NACE report Making space for able learners – Cognitive challenge: principles into practice (2020), cognitive challenge is defined as “how learners become able to understand and form complex and abstract ideas and solve problems”. We want students to achieve these high ambitions in their learning, but how is this achieved in a mixed ability class with increasing demands on the teacher, including higher academic expectations? The NACE report provides case studies showing where this has been achieved and highlights the common features across schools that are achieving this – and these key themes are worth reflecting upon.
What do we mean by “challenge for all”?
“Challenge for all” is the mantra often recited, but is it a reality? At times it can appear that “challenge” is just another word for the next task. Or, perhaps, just a name for the last task. Working with teachers recently I asked: why do the more able learners need to work through all the preceding the tasks to get to the “challenge”? Are you asking them to do other work that is not challenging? Or coast until it gets harder? A month later the same teachers talked about how they now move those learners swiftly on to the more challenging tasks, noting that their work had improved significantly, they were more motivated and the learning was deeper. This approach also led to learners being fully engaged, meaning the teacher could vary the support needed across the class to ensure all pupils were challenged at the appropriate level.
“Teaching to the top” is another phrase widely used now and it is a good aspiration, although at times it is unclear what the “top” is. Is it grade 7 at GCSE or perhaps greater depth in Year 6? It is important to have these high expectations and to expose all learners to higher learning, but we need to remember that some of our learners can go even higher but also be challenged in ways that do not relate to exams. For instance, at Copthorne Primary School, the NACE report notes that “pupils are regularly set complex, demanding tasks with high-level discourse. Teachers pitch lessons at a high standard”. Note the reference to discourse – a key feature of challenge is the language heard in the classroom, whether from adults or learners. The “top” is not merely a grade; it is where language is rich and learning is meaningful, including in early years, where we often see the best examples.
Are your questions big enough?
The use of “low threshold, high ceiling” tasks are helpful in a mixed ability class, with all pupils able to access the learning and some able to take it further. In maths, a question as simple as “How many legs in the school?” can lead to good outcomes for all (including those who realise the question doesn’t specify human legs). But there is often a danger that task design can be quite narrow. The minutiae of the curriculum can push teachers to bitesize learning, which can be limiting – especially when a key aim has to be linking the learning through building schema. Asking “Big Questions” can extend learning and challenge all learners. The University of Oxford’s Oxplore initiative offers a selection of Big Questions and associated resources for learners to explore, such as “Should footballers earn more than nurses?” and “Can money buy happiness?”. There is a link to philosophy for children here, and in cognitively challenging classrooms we see deep thinking for all pupils.
Can your learners build more complex schema?
All pupils need to build links in their learning to develop understanding, and more able learners can often build more detailed schema. To give a history example, understanding the break from Rome at the time of Henry VIII could be learned as a series of separate pieces of knowledge: marriage to Catherine of Aragon, the need for a male heir, wanting a divorce in order to marry Anne Boleyn, the religious backdrop, etc. Knowing these items is one thing, but learners need to make links between them and create a schema of understanding. The more able the pupil, the more links can be made, again deepening understanding. That is why in cognitively challenging classrooms skilled teachers ask questions such as:
What does that link to?
What does that remind you of?
When have you seen this before?
What is this similar to? Why?
These questions are especially useful in a busy mixed ability classroom. Prompt questions like these can be used in a range of situations, rather than always requiring another task for the more able pupil who has “finished”. (As if we have ever really finished)
Are you allowing time for “chunky” problems?
So, what else provides challenge? The NACE report notes: “At Portswood Primary School pupils are given ill-structured problems, chunky problems, and compelling contexts for learning”. Reflecting upon the old literacy hour, I used to joke: “Right Year 5, you have 20 minutes to write like Charles Dickens. Go!” How could there be depth of response and high-level work in such short time scales? What was needed were extended tasks that took time, effort, mistakes, re-writes and finally resolution. The task often needed to be chunky. Some in the class will need smaller steps and perhaps more modelling from the teacher, but for the more able learners their greater independence allows them to tackle problems over time.
This all needs organising with thought. It does not happen by accident. With this comes a sense of achievement and a resolution. Pupils are challenged cognitively but need time for this because they become absorbed in solving problems. This also works well when there are multiple solution paths. In a mixed ability class asking the more able to find two ways to solve a problem and then decide which was the most efficient or most effective can extend thinking. It also calls upon higher-order thinking because they are forced to evaluate. Which method would be worth using next time? Why? Justify. This also emphasises the need to place responsibility with the learner. “At Southend High School for Boys, teachers are pushed to become more sophisticated with their pedagogy and boost pupils’ cognitive contribution to lessons rather that the teacher doing all the work”. In a mixed ability class this is vital. How hard are your pupils working and, more importantly, thinking?
I wrote in a previous blog post about how essential the use of cutaway is in mixed ability classes. Retrieval practice, modelling and explanation are vital parts of a lesson, but the question is: do all of the students in your class always need to be part of that? A similar argument is made here. More able learners are sometimes not cognitively challenged as much in whole-class teaching and therefore, on occasion, it is preferable for these pupils to begin tasks independently or from a different starting point.
As well as being nurturing, safe and joyful, we all want our classrooms to be cognitively challenging. This is a certainly not easy in a mixed ability class but it can be achieved. High expectations, careful task design and an eye on big questions all play a part, alongside the organisation of the learning. In this way our teaching can be improved significantly – far more than my running ever will be…