Computing

Introduction

This information outlines the knowledge, language and concepts that should be taught in Computing. It includes:

• A summary of the Computing knowledge and principles that underpin our approach
• Long Term Sequence (curriculum map) for Computing

It is influenced by documents and research, including  https://www.gov.uk/government/publications/research-review-series-computing/research-review-series-computing and the National Centre for Computing Education’s computing taxonomy.

 

Intent

Our Computing curriculum precisely follows the units outlined in the National Curriculum. It is our intention that through studying Computing, pupils become more expert as they progress through the curriculum, accumulating, connecting and making sense of the rich substantive and disciplinary knowledge.

1. Substantive knowledge - this is the subject knowledge and explicit vocabulary used to learn about the content. Common misconceptions are explicitly revealed as non-examples and positioned against known and accurate content. In our Computing curriculum, we focus on the three main content areas:

computer science            information technology               digital literacy

2. Disciplinary knowledge – this is knowing how to collect, use, interpret, understand and evaluate learning through the Computing knowledge that is taught. It is not assumed that pupils will acquire these skills by luck or hope. All learning outcomes can be described through a high-level taxonomy of ten strands, which provides categories and an organised view of content to encapsulate the discipline of computing:

• Algorithms — Be able to comprehend, design, create, and evaluate algorithms
• Computer networks — Understand how networks can be used to retrieve and share information, and how they come with associated risks
• Computer systems — Understand what a computer is, and how its constituent parts function together as a whole
• Creating media — Select and create a range of media including text, images, sounds, and video
• Data and information — Understand how data is stored, organised, and used to represent real-world artefacts and scenarios
• Design and development — Understand the activities involved in planning, creating, and evaluating computing artefacts
• Effective use of tools — Use software tools to support computing work
• Impact of technology — Understand how individuals, systems, and society as a whole interact with computer systems
• Programming — Create software to allow computers to solve problems
• Safety and security — Understand risks when using technology, and how to protect individuals and systems

Computing is planned so that the retention of knowledge is much more than just ‘in the moment knowledge’.

The cumulative nature of the curriculum is made memorable by the implementation of Bjork’s desirable difficulties, including retrieval and spaced retrieval practice, word building and deliberate practice tasks. This powerful interrelationship between structure and research-led practice is designed to increase substantive knowledge and accelerate learning within and between study modules. That means the foundational knowledge of the curriculum is positioned to ease the load on the working memory: new content is connected to prior learning. The effect of this cumulative model supports opportunities for children to associate and connect significant computing concepts, over time, and with increasing expertise and knowledge.

Our Computing curriculum has sequenced the national curriculum into meaningful and connected ‘chunks’ of content to reduce the load on the working memory as well as creating coherent and strong long-term memories. The sequence of substantive and disciplinary knowledge enables pupils to become ‘more expert’ with each study and grow an ever broadening and coherent mental model of the subject. This guards against superficial, disconnected and fragmented Computing knowledge and weak disciplinary knowledge. High frequency, multiple meaning words (Tier 2) are taught explicitly and help make sense of subject specific words (Tier 3).

 

Progression Overview

Early Years

As young children take part in a variety of tasks with digital devices, such as moving a Bee Bot around a classroom, they will already be familiar with the device before being asked to undertake tasks related to the key stage one (KS1 - ages 5 - 7 years) computing curriculum, such as writing and testing a simple program. Not only will children be keen to again use a device they had previously enjoyed using, their cognitive load will also be reduced, meaning they are more likely to succeed when undertaking activities linked to the next stage in their learning. Within the revised EYFS statutory framework, there are opportunities within each area of the framework to enable practitioners to effectively prepare children for studying the computing curriculum.

 

Key Stage 1

Year Group	Computing systems and networks	Creating Media	Programming A	Data and Information	Creating media	Programming B
Year 1	Technology around us Recognising technology in school and using it responsibly.	Digital painting Choosing appropriate tools in a program to create art, and making comparisons with working non-digitally	Moving a robot Writing short algorithms and programs for floor robots, and predicting program outcomes.	Grouping data Exploring object labels, then using them to sort and group objects by properties.	Digital writing Using a computer to create and format text, before comparing to writing non-digitally.	Programming animations Designing and programming the movement of a character on screen to tell stories.
Year 2	Information technology around us Identifying IT and how its responsible use improves our world in school and beyond.	Digital photography Capturing and changing digital photographs for different purposes.	Robot algorithms Creating and debugging programs, and using logical reasoning to make predictions.	Pictograms Collecting data in tally charts and using attributes to organise and present data on a computer.	Making music Using a computer as a tool to explore rhythms and melodies, before creating a musical composition.	Programming quizzes Designing algorithms and programs that use events to trigger sequences of code to make an interactive quiz.

 

Lower Key Stage 2

Year Group	Computing systems and networks	Creating media	Programming A	Data and information	Creating media	Programming B
Year 3	Connecting computers Identifying that digital devices have inputs, processes, and outputs, and how devices can be connected to make networks.	Stop-frame animation Capturing and editing digital still images to produce a stop-frame animation that tells a story.	Sequencing sounds Creating sequences in a block-based programming language to make music.	Branching databases Building and using branching databases to group objects using yes/no questions.	Desktop publishing Creating documents by modifying text, images, and page layouts for a specified purpose	Events and actions in programs Writing algorithms and programs that use a range of events to trigger sequences of actions.
Year 4	The internet Recognising the internet as a network of networks including the WWW, and why we should evaluate online content.	Audio production Capturing and editing audio to produce a podcast, ensuring that copyright is considered.	Repetition in shapes Using a text-based programming language to explore count-controlled loops when drawing shapes.	Data logging Recognising how and why data is collected over time, before using data loggers to carry out an investigation.	Photo editing Manipulating digital images, and reflecting on the impact of changes and whether the required purpose is fulfilled.	Repetition in games Using a block-based programming language to explore count-controlled and infinite loops when creating a game.

 

Upper Key Stage 2

Year Group	Computing systems and networks	Creating media	Programming A	Data and information	Creating media	Programming B
Year 5	Systems and searching Recognising IT systems around us and how they allow us to search the internet.	Video production Planning, capturing, and editing video to produce a short film.	Selection in physical computing Exploring conditions and selection using a programmable microcontroller.	Flat-file databases Using a database to order data and create charts to answer questions.	Vector drawing Creating images in a drawing program by using layers and groups of objects.	Selection in quizzes Exploring selection in programming to design and code an interactive quiz.
Year 6	Communication and collaboration Identifying and exploring how data is transferred and information is shared online.	Webpage creation Designing and creating webpages, giving consideration to copyright, aesthetics, and navigation.	Variables in games Exploring variables when designing and coding a game.	Introduction to spreadsheets Answering questions by using spreadsheets to organise and calculate data.	3D modelling Planning, developing, and evaluating 3D computer models of physical objects.	Sensing Designing and coding a project that captures inputs from a physical device.

 

 

Implementation

We implement our intent using NCCE Teach Computing programme of study.  The Teach Computing Curriculum (ncce.io/tcc) is a comprehensive collection of materials produced to support teaching, facilitating the delivery of the entire English computing curriculum. The Teach Computing Curriculum was created by the Raspberry Pi Foundation on behalf of the National Centre for Computing Education (NCCE). All content is free, and editable under the Open Government Licence (OGL — ncce.io/ogl), ensuring that the resources can be tailored to each individual teacher and school setting. The materials are suitable for all pupils irrespective of their skills, background, and additional needs. The units for key stages 1 and 2 are based on a spiral curriculum. This means that each of the themes is revisited regularly (at least once in each year group), and pupils revisit each theme through a new unit that consolidates and builds on prior learning within that theme. This style of curriculum design reduces the amount of knowledge lost through forgetting, as topics are revisited yearly. It also ensures that connections are made even if different teachers are teaching the units within a theme in consecutive years.  The Teach Computing Curriculum has been designed to reduce teacher workload. To ensure this, the Teach Computing Curriculum includes all the resources a teacher needs, covering every aspect from planning, to progression mapping, to supporting materials.

 

Inclusive and ambitious

The Teach Computing Curriculum has been written to support all pupils. Each lesson is sequenced so that it builds on the learning from the previous lesson, and where appropriate, activities are scaffolded so that all pupils can succeed and thrive. Scaffolded activities provide pupils with extra resources, such as visual prompts, to reach the same learning goals as the rest of the class. Exploratory tasks foster a deeper understanding of a concept, encouraging pupils to apply their learning in different contexts and make connections with other learning experiences. As well as scaffolded activities, embedded within the lessons are a range of pedagogical strategies, which support making computing topics more accessible.

 

Research-informed

The subject of computing is much younger than many other subjects, and as such, there is still a lot more to learn about how to teach it effectively. To ensure that teachers are as prepared as possible, the Teach Computing Curriculum builds on a set of pedagogical principles (see the ‘Pedagogy’ section of this document), which are underpinned by the latest computing research, to demonstrate effective pedagogical strategies throughout. To remain up-to-date as research continues to develop, every aspect of the Teach Computing Curriculum is reviewed each year and changes are made as necessary.

 

Pedagogy

The National Centre for Computing Education’s pedagogical approach consists of 12 key principles underpinned by research: each principle has been shown to contribute to effective teaching and learning in computing. It is recommended that computing teachers use their professional judgement to review, select, and apply relevant strategies for their pupils. These 12 principles are embodied by the Teach Computing Curriculum, and examples of their application can be found throughout the units of work at every key stage. Beyond delivering these units, you can learn more about these principles and related strategies in the National Centre for Computing Education pedagogy toolkit (ncce.io/pedagogy).

• Lead with concepts Support pupils in the acquisition of knowledge, through the use of key concepts, terms, and vocabulary, providing opportunities to build a shared and consistent understanding. Glossaries, concept maps, and displays, along with regular recall and revision, can support this approach.
• Work together Encourage collaboration, specifically using pair programming and peer instruction, and also structured group tasks. Working together stimulates classroom dialogue, articulation of concepts, and development of shared understanding.
• Get hands-on Use physical computing and making activities that offer tactile and sensory experiences to enhance learning. Combining electronics and programming with arts and crafts (especially through exploratory projects) provides pupils with a creative, engaging context to explore and apply computing concepts.
• Unplug, unpack, repack Teach new concepts by first unpacking complex terms and ideas, exploring these ideas in unplugged and familiar contexts, then repacking this new understanding into the original concept. This approach, called ‘semantic waves’, can help pupils develop a secure understanding of complex concepts.
• Model everything Model processes or practices — everything from debugging code to binary number conversions — using techniques such as worked examples and live coding. Modelling is particularly beneficial to novices, providing scaffolding that can be gradually taken away.
• Foster program comprehension Use a variety of activities to consolidate knowledge and understanding of the function and structure of programs, including debugging, tracing, and Parson’s Problems. Regular comprehension activities will help secure understanding and build connections with new knowledge.
• Create projects Use project-based learning activities to provide pupils with the opportunity to apply and consolidate their knowledge and understanding. Design is an important, often overlooked aspect of computing. Pupils can consider how to develop an artefact for a particular user or function, and evaluate it against a set of criteria.
• Add variety Provide activities with different levels of direction, scaffolding, and support that promote learning, ranging from highly structured to more exploratory tasks. Adapting your instruction to suit different objectives will help keep all pupils engaged and encourage greater independence.
• Challenge misconceptions Use formative questioning to uncover misconceptions and adapt teaching to address them as they occur. Awareness of common misconceptions alongside discussion, concept mapping, peer instruction, or simple quizzes can help identify areas of confusion.
• Make concrete Bring abstract concepts to life with real-world, contextual examples, and a focus on interdependencies with other curriculum subjects. This can be achieved through the use of unplugged activities, proposing analogies, storytelling around concepts, and finding examples of the concepts in pupils’ lives.
• Structure lessons Use supportive frameworks when planning lessons, such as PRIMM (Predict, Run, Investigate, Modify, Make) and (Use-Modify-Create). These frameworks are based on research and ensure that differentiation can be built in at various stages of the lesson.
• Read and explore code first When teaching programming, focus first on code ‘reading’ activities, before code writing. With both block-based and text-based programming, encourage pupils to review and interpret blocks of code. Research has shown that being able to read, trace, and explain code augments pupils’ ability to write code.

 

Learning Sequences

The Teach Computing Curriculum is structured in units. For these units to be coherent, the lessons within a unit must be taught in order.  Every unit of work in the Teach Computing Curriculum contains: a unit overview; a learning graph, to show the progression of skills and concepts in a unit; lesson content — including a detailed lesson plan, slides for learners, and all the resources teachers will need. Additionally the units highlight formative and summative assessment opportunities, including quizzes.

Across a year group, the units themselves do not need to be taught in order, with the exception of ‘Programming’ units, where concepts and skills rely on prior learning and experiences. The Teach Computing Curriculum uses the National Centre for Computing Education’s computing taxonomy to ensure comprehensive coverage of the subject.

 

Online safety

The unit overviews for each unit show the links between the content of the lessons and the national curriculum and Education for a Connected World framework (ncce.io/efacw). These references have been provided to show where aspects relating to online safety, or digital citizenship, are covered within the Teach Computing Curriculum.

 

Lesson Structure

Lessons typically are split into six phases:

• CONNECT This provides an opportunity to connect the lesson to prior learning from a previous module or lesson. Teachers return children’s attention to the previous lesson’s knowledge note/the big idea for the learning module, including key vocabulary. Examples of thinking harder routines include Flick Back 5, Recap questions, Quizzing. Retrieval practice allows all pupils to take time to remember things and activate their memories. Quizzing allows questions to be asked and allows pupils to carry out retrieval practice. Cumulative quizzing, allows for a few questions to be asked each lesson, which are built upon the previous lesson.
• EXPLAIN This is the explicit teaching that needs to take place. Teachers should ensure they are clear what they want children to know and remember. They plan for and explicitly address common misconceptions so they can address these in lessons as they arise. They should be clear about the substantive knowledge and the vocabulary that they want children to understand in the session.  This can be developed using key information, facts, and imagesso that explanations are precise.
• EXAMPLE Providing pupils with high-quality examples is essential for learning. Pupils need to see worked examples. My turn, our turn, your turn is a technique that can be used to explicitly teach vocabulary and new concepts.  Prepared examples should be carefully planned and need to be evident in teaching. An example in geography could be demonstrating how to label a map, before labelling a map together.
• ATTEMPT Guiding pupil practice allows pupils to rehearse, rephrase and elaborate their learning. Children need the chance to attempt and verbalise their understanding. Children’s own attempts are what help them to secure their understanding. Children need to have time to struggle and understand for themselves. This is not necessarily something that is recorded in books. This phase provides opportunities for teachers to check in with pupils to see who may need more challenge/support/scaffolds and if any misconceptions have arisen that need to be addressed. Extending the previous geography example, pupils could practice labelling a map.
• APPLY This is where pupils would typically begin to record in books. The number of scaffolds may vary.
• CHALLENGE Teachers get the children to interrogate their learning - summarise, explain, compare and contrast. Tools are built into routines to reduce overload and allow for hard thinking. These can be adapted for children based on their individual needs.

 

Long Term Sequence

Year Group	Term 1		Term 2		Term 3
Year 1	Technology around us Computing systems Algorithms	Digital painting Effective use of tools  Creating media	Moving a robot Algorithms Programming	Grouping data Data and information Algorithms	Digital writing Effective use of tools Algorithms	Programming animations Programming Design & development
Year 2	Information technology around us Networks Computing systems	Digital photography Effective use of tools Creating media	Robot algorithms Algorithms Programming	Pictograms Data and information Effective use of tools	Making music Creating media Design & development	Programming quizzes Programming Design & development
Year 3	Connecting computers Networks Computing systems	Stop-frame animation Effective use of tools Creating media	Sequencing sounds Programming Design & development	Branching databases Effective use of tools Data and information	Desktop publishing Effective use of tools Creating media	Events and actions in programs Programming Design & development
Year 4	The internet Networks Design & development	Audio production Effective use of tools Creating media	Repetition in shapes Algorithms Programming	Data logging Computing systems Data and information	Photo editing Effective use of tools Creating media	Repetition in games Programming Design & development
Year 5	Systems and searching Networks Effective use of tools	Video production Creating media Design & development	Selection in physical computing Computing systems Programming	Flat-file databases Effective use of tools Data and information	Vector drawing Effective use of tools Creating media	Selection in quizzes Algorithms Programming
Year 6	Communication and collaboration Networks Effective use of tools	Webpage creation Creating media Design & development	Variables in games Programming Design & development	Introduction to spreadsheets Effective use of tools Data and information	3D modelling Effective use of tools Creating media	Sensing Computing systems Programming

 

 

Impact

In order to identify the impact our curriculum is having on our pupils, we check the extent to which learning has become permanently embedded in children’s long-term memory in addition to looking for excellence in their outcomes. We use four main tools to quality assure the implementation and impact of our curriculum:

• Learning observations help to evaluate subject knowledge, explanations, expectations, opportunities to learn, pupil responses, participation and relationships.
• Professional growth models help to improve staff subject knowledge and evidence informed practice such as retrieval and spaced practice, interleaving and explicit instruction techniques.
• Assessment and achievement articulate the outcomes from tasks and tests, how well the content is understood and what the strengths and limitations are; it informs what to do next.
• Pupil Book Studies help to evaluate curriculum structures, teaching methods, pupil participation and response through a dialogic model.

When undertaking these we ask the following key questions:

• How well do pupils remember the content that they have been taught?
• Do books and pupil discussions radiate excellence?
• Does learning ‘travel’ with pupils and can they deliberately reuse it in more sophisticated contexts?

Teachers employ a range of strategies both at and after the point of teaching to check the impact of their teaching on the permanence of pupils’ learning. These include: retrieval practice, vocabulary use and application, deliberate practice and rephrasing of taught content, cumulative quizzing within the learning sequence, summarising and explaining the learning question from the sequence, tests and quizzes.  Teachers use information from tasks, tests, pupil book studies and other monitoring to support learning by responding to the gap between where pupils are and where they need to be.  In lessons, they adapt explanations and examples to address misconceptions and provide additional practice or challenge where required.  After lessons or tests, they analyse pupils’ responses to identify shared and individual gaps in learning and misconceptions. Teachers then adjust subsequent planned teaching in response.

We use summative assessment is ‘to provide an accurate shared meaning without becoming the model for every classroom activity’ (Christodolou, 2017). If our curriculum is effective, it will lead to improvements in summative assessments over time. Teacher assessment judgements are against an agreed assessment model (the curriculum).  A pupil working at age-related expectations should be able to meet the success criteria for each lesson by the end of the unit. We make summative judgements annually. Teachers record summative judgements on OTrack.

Pupil book study is used as a method to quality assure our curriculum by talking to the children and looking in pupils’ books. We do this after content has been taught to see the extent to which pupils are knowing more, remembering more and able to do more.  In preparation, we review the planned content, knowledge and vocabulary, so that conversations with pupils are meaningful and focused on what has been taught. When looking at books, we look at the content and knowledge, teaching sequence and vocabulary. We also consider pupils’ participation and consider the explanations and models used, the tasks the pupils are asked to do, the ability to answer carefully selected questions and retrieve information and the impact of written feedback.  We ask careful questions that probe their knowledge, understanding and skills.

The Subject Leader undertakes a range of activities to understand what the curriculum looks like across the school and how well pupils know more, remember more and can do more as a result. In addition to the above tools, they use learning walks, planning reviews and book looks.  They use their findings to support teachers to improve how they implement subjects and to make recommendations about the suitability of the intent for their subject.  The Subject Leader formally reports on impact of the curriculum termly to the Curriculum Leader, Principal and Governors.