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What is Chip Binning?

Understanding the Silicon Sorting Hat of CPUs

8 April 2026

Ever wondered why processors like Ryzen 9 cost more than Ryzen 5, even though they look pretty similar? The answer lies in a clever process called chip binning — essentially, the art of sorting silicon chips after production to separate the stars from the rest.

Baking Silicon Cookies: A Simple Analogy

Imagine you’re baking 1,000 cookies. They all look alike, but some come out golden and chewy, while others might be a bit burnt or crumbly. Chip binning is a bit like that — but instead of sugar and flour, it’s silicon and electrons being tested. 

When manufacturers slice a large silicon wafer into hundreds of tiny processors, not all chips are created equal. Some perform faster and use less power — these are the “golden” chips. Others work well, but only if you don’t push them too hard.

Why Do Chips Get “Binned”?

After production, each chip is rigorously tested. The best performers earn premium titles like “Ryzen 9” or “Core i9” — these are the five-star biscuits of the tech world. Chips that don’t quite make the cut get repackaged as “Ryzen 5,” “Core i5,” or even the more modest “Pentium.”

Importantly, the cores or speeds you see on your CPU label are genuine. You can’t unlock hidden performance by fiddling with the BIOS—those disabled parts are either broken or physically removed. It’s like buying a chair with missing legs and hoping it will magically grow back.

The Benefits of Chip Binning

Chip binning helps reduce waste and maximise profits, ensuring that processors meet different needs and budgets. Thanks to this process, consumers get a range of CPUs that balance performance and price.

So, the next time you pick up a “binned” chip, remember you’re essentially getting the best available chip in that batch — the teacher’s pet of the silicon classroom, complete with all A*s but no free biscuit.

Want to learn more about how your computer’s brain really works? Check out our Lesson Hacker YouTube video.

For more Lesson Hacker videos, check out the CraignDave YouTube playlist HERE.

Visit our website to explore more cutting-edge tech news in the computer science world!

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It’s not in the mark scheme

27 March 2026

When “not in the mark scheme” doesn’t mean wrong – what Quicksort teaches us about accepting valid alternatives 

A question that surfaces every revision season is this:
“If a student’s answer isn’t in the mark scheme, can they still get credit?” 

Happily, the answer is yes. 

Mark schemes guide examiners toward expected answers, but they’re not exhaustive. A response that demonstrates the required understanding, even if expressed differently, should still earn marks, and examiners are trained to recognise valid alternatives. 

Few topics illustrate this better than the story of the Quicksort, and the many ways students might correctly perform it. 

Remembering Tony Hoare, creator of Quicksort 

It felt fitting to reflect on this, following the sad news that Professor Sir Charles Hoare (“Tony Hoare”) passed away peacefully on 5 March 2026 at the age of 92. Hoare is widely regarded as one of the greatest thinkers in the history of computing. His most famous contribution was the Quicksort, the algorithm that has sparked more A level debates and classroom disputes than possibly almost any other. 

The origin story is wonderfully humble. In 1959, while studying machine translation at Moscow State University, Hoare needed a fast way to sort Russian words. Bubble sort wasn’t going to cut it. So, armed with paper and pencil, he devised Quicksort. Ironically, he couldn’t actually implement it, the language he was using, Mercury Autocode, was too limited. 

When he returned to England and joined Elliott Brothers in 1960, one of his first tasks was to write a Shellsort. After completing it, he casually mentioned to his boss that he knew a faster method. His boss responded with a sixpence bet – one Hoare won when Quicksort outperformed all expectations. 

So why don’t students’ Quicksorts match the mark scheme? 

Quicksort isn’t a single algorithm. It’s a family of algorithms. Researchers and engineers have created hundreds of variants, each valid, each useful, each “Quicksort.” 

This naturally leads to classroom friction: 

  • “That’s not how we learned it in Maths!” 
  • “But my teacher said the pivot never moves!” 
  • “This example is nothing like the mark scheme…” 

The truth is: students aren’t wrong. Teachers aren’t wrong, and neither is the mark scheme! They’re often just using different, but valid variants. That’s exactly why rigidly expecting a single form of Quicksort can result in unfairly penalising correct answers. 

What teachers should really look for with algorithms 

Don’t advise students to memorise code blocks. Instead of matching specific code, teachers and students should look for the essential components that all Quicksort variants share: 

  1. A pivot selection strategy

Common approaches include: 

  • First element 
  • Last element 
  • Middle element 
  • Random pivot 
  • Medianof3 
  • Medianof5 
  • Tukey’s ninther 
  • Adaptive schemes (e.g., introselect) 
  1. A partitioning scheme

Popular methods include: 

  • Hoare partition – efficient, uses two indices 
  • Lomuto partition – conceptually simple, uses one index 
  • Bentley–McIlroy 3way – excellent for data with many duplicates 
  • Dualpivot – used in Java’s standard sort 
  1. A recursive divide-and-conquer structure

Often supported by implementation choices such as: 

  • Tailrecursion elimination 
  • Cutoffs to insertion sort 
  • Memory layout optimisations 
  • Parallel variants 
  • Introsort hybrids 
  • Cacheoblivious versions 
  1. A base case

The recursion stops when a sub list contains 0 or 1 elements. 

  1. Combination of the results

When all partitions are sorted, the fully sorted list is formed. 

 

Where the confusion really comes from 

Most disagreement stems from the popularity of two different partitioning approaches: Hoare or Lomuto, and the fact that many teachers were taught one or the other. 

To complicate things further a visualisation called the “Hungarian dancers” (thanks to a viral YouTube video) uses the first element as the pivot but allows it to move during partitioning meaning it’s not a pure Hoare partition, it’s a variant that is inefficient but can make it easier to visualise what the pivot is doing. 

So, when a student’s working doesn’t match what’s in the mark scheme or what you’ve seen before, remember: it may still be a perfectly valid algorithm. 

Want clear, classroom-friendly examples? 

To support teachers CPD, we’ve included full walkthroughs of the Hoare, Lomuto, and the Hungarian variant with code in Python, C#, and Visual Basic in our book:
👉 https://www.amazon.co.uk/dp/B09NRBS8ND 

Oh, and that documented meeting between Tony Hoare and Nico Lomuto we included? That’s just fiction! …but Tony did win the sixpence from his boss! 

Check out the ‘At the chalk face’ podcast for more!

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VEX Robotics is inspiring the next generation of Computer Scientists

VEX Robotics – Bringing computing to life

18 March 2026

If you’ve ever wondered how to make computing more engaging for your students, you need to know about VEX Robotics

Their mission is simple: make engineering, computing, and STEM learning accessible, fun, and hands-on. Whether it’s building and programming a robot for an extracurricular club or preparing a team for a competitive challenge, VEX supports teachers every step of the way with guides, CPD resources, and online tools, all enabling us, the teachers, to bring coding to life. 

VEX has rapidly become a global leader in educational robotics. Originally focused on building parts for competitive robotics teams, VEX has expanded to provide hardware, software, and teaching resources for learners from early years right through to A-level, and all of us at Craig’n’Dave love them! 

From classroom robotics to competition

For teachers who feel intimidated by the word “competition,” VEX makes it easy to start small. Their classroom robots are designed to be plug-and-play, letting students explore programming concepts, sensors, and AI without worrying about complicated setups or fragile equipment. You can start with block-based coding, and when ready, move on to Python, making robotics accessible for all levels.

Even their competitive programs, like VEX IQ (Key Stage 2–3) and VEX V5 (KS3–5), emphasise collaboration over rivalry. Students are randomly paired with other teams, requiring them to work together, mentor each other, and strategise as a team. The result? Students not only apply computing and design skills but also gain soft skills like communication, problem-solving, and teamwork—the very skills employers and educators value most.

In the latest episode of At the Chalkface, Craig and Dave sit down with Chris from VEX Robotics to explore all things robotics in computer science and why it really matters.

Want to know more about VEX Robotics? Check out their website HERE 

 

VEX Robotics is at the Festival of Computing 2026

We’re thrilled to announce VEX Robotics as a Main Sponsor of this year’s Craig’n’Dave Festival of Computing, the UK’s biggest secondary computing festival. 

At the festival, you can:

  • Explore the VEX stand and see what they have to offer
  • Attend their CPD session, “AI Vision in Robotics – World Cup Fever Edition”
  • Discover how to introduce robotics in your classroom or after-school club.

VEX is also sponsoring the fantastic pre-event curry supper held at Bromsgrove School.

A special ticketed social the night before the festival. It’s a great way to enjoy a fun evening of networking, conversation, and inspiration. Spaces are limited, so grab your ticket while you can. 

Curry night tickets available HERE.

Why you should attend

The Craig’n’Dave Festival of Computing 2026 is all about inspiration, innovation, and collaboration

Whether you’re looking to refresh your computing lessons, spark excitement with hands-on projects, or explore cross-curricular links this is the event for you. 

With engaging CPD sessions and keynote talks, a Marketplace packed with leaders in computing education—including VEX Robotics—and plenty of opportunities to connect with fellow educators, it’s an experience no teacher will want to miss.

Get your festival tickets now.

Reserve your curry night ticket while spaces last.

 

Want to know more about the Festival of Computing? Check out all the details about the day HERE

Want to check out the full interview with Chris from VEX Robotics on our At the Chalkface YouTube channel and hear all about how VEX is shaping computing education?

Watch the video HERE.

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Handwriting and embodied cognition

Think handwriting is dead in the age of keyboards, screens, and AI? Think again!

20 February 2026

In recent years, teachers have rightly questioned the purpose and design of homework. Should it reinforce what was taught in the lesson, or should it prepare students for the next lesson? Does homework meaningfully improve learning—and if so, what should it look like? 

Craig’n’Dave’s approach at GCSE and A level offers a practical answer: homework that prepares through concise instruction, encodes through handwriting, and consolidates through structured retrieval—so preparation and reinforcement work as a single loop. This recognises a key idea proposed by Alex Quigley, “in an AIfirst world, handwriting is not an anachronism but an aid to thinking and remembering that should sit alongside technology, not be displaced by it.” https://alexquigley.co.uk/learning-by-hand 

Handwriting as a cognitive engine 

With Craig’n’Dave homework, students begin by hand‑copying from what they see on the screen as they pause a video when the “take notes” icon appears. This is intentional. It makes the task low‑stakes, clear, and achievable for all learners without additional help. Every student can get started; no one is locked out by gaps in prior knowledge or confidence. From there, the Cornell structure guides students beyond transcription:

  • Notes – initially copied, illustrating and teaching students how to distil information.
  • Questions – students turn their notes into prompts that they can self‑test with later.
  • Key terms – students identify up to eight essential vocabulary items, creating a high‑utility glossary aligned to the topic.

This journey from copying to curating mirrors Alex Quigley’s argument that handwriting is an “essential aid to thinking and remembering,” not merely an old approach. He situates it within embodied cognition: the physical act of writing engages perceptual–motor systems that bolster memory and comprehension and helps students generate meaning.

Crucially, the rationale isn’t just conceptual. A growing body of evidence shows that handwriting triggers richer, more widespread brain connectivity than typing, supporting memory formation and information encoding. A recent EEG study found far more elaborate connectivity during handwriting than keyboarding—exactly the kind of deeper processing that Quigley argues we risk losing if we sideline pen‑and‑paper practices.

Quigley’s key point deserves to be foregrounded here. Handwriting slows thinking down in productive ways and strengthens encoding into long‑term memory.

Technology as the gateway, not the destination 

Craig’n’Dave videos are deliberately short

– capped at around 12 minutes – and focused solely on what matters for the specification. This is important because cognitive load matters. Long, meandering explanations increase the risk that students disengage or fail to identify the core ideas. Video, used in this way, offers three advantages that traditional teacher exposition cannot:

  • Control – students can pause, rewind and rewatch, removing the “one-shot” nature of teacher talk.
  • Accessibility – subtitles and translation into over 80 languages provide genuine support for EAL and many SEND learners.
  • Relevance – video aligns with how students already consume information, increasing the likelihood of initial engagement.

However, Craig’n’Dave’s model is careful not to confuse engagement with learning. The video is not the endpoint. It is the input. This distinction matters because, as Quigley reminds us, “learning improves when students move beyond passively receiving information and instead select, organise and transform it—something technology should enable but not replace.”

The eyes–brain–hand reinforcement loop

The Craig’n’Dave approach to outside-inside classroom activities creates a deliberate reinforcement loop.

Outside the lesson:

  1. Eyes watch the video.
  2. Brain processes and selects.
  3. Hand writes and organises (copy → question → key terms).

Inside the lesson:

  1. Eyes read the same notes.
  2. Brain reprocesses the same ideas.
  3. Hand applies them in tasks.

The same content is encountered repeatedly, but through different cognitive actions—watching/listening, writing/structuring, reading/applying—producing the reinforcement model that pairs preparation with consolidation. This design is exactly what Quigley advocates: use technology but also require students to embody the learning through handwriting so that ideas are encoded and retrievable.

Smart Revise: retrieval, vocabulary and reasoning 

The third component completes the picture and ensures that knowledge sticks. Smart Revise, Craig’n’Dave’s online platform has three modes students must also engage with to meet their weekly goals as part of their homework diet.

  1. Quiz – multiple‑choice questions to check understanding and surface misconceptions.
  2. Terms – flashcards to reinforce precise vocabulary (vital in computer science).
  3. Advance – typed answers to develop explanation and reasoning.

Where the video supports initial understanding and handwriting supports encoding, Smart Revise delivers retrieval and consolidation. This is where the Eyes–Brain–Hand loop pays off: students don’t just “review”—they retrieve content that has already been processed and embodied through handwriting, which research associates with stronger memory performance than typed note‑taking.

Why this matters for Computer Science 

Computer science demands:

  • Dense, technical vocabulary.
  • Abstract concepts (e.g., CPU architecture, memory, protocols).
  • Precise reasoning in written explanations.

Craig’n’Dave’s homework model maps neatly onto those demands. Video clarifies abstractions. Handwriting transforms exposure into memory through Cornell notetaking—leveraging the embodied cognition benefits. Online recall with Smart Revise secures terminology and strengthens reasoning. Nothing is excluded. Nothing is overused. Technology opens the door, handwriting does the cognitive heavy lifting, and retrieval locks learning in.

The best of all worlds

Rather than choosing between reinforcement or preparation, digital or traditional, Craig’n’Dave’s approach intentionally combines the strengths of each. This is precisely the balanced ecosystem Quigley calls for: keep the affordances of technology, but do not abandon the memory‑forming benefits of writing by hand.

Want to know more? Watch our At the chalk face video here.

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Significant pressure from Ofsted brings heightened expectations on schools over mobile phones

6 February 2026

The DfE’s updated guidance, published in January 2026, sets an unequivocal expectation: pupils should not have access to their phones at any point during the school day, including lessons, between lessons, breaktimes and lunch. That means the old policies of keeping phones in pockets and bags, “not seen or heard” is no longer enough. 

A new era of “nonstatutory” expectations 

Although presented as nonstatutory, Ofsted has made clear that schools risk failing to meet the “expected standard” for behaviour and attendance if they do not implement a phonefree environment. 

This creates an unusual tension. There is no law banning phones in schools, schools remain free, in theory, to set their own behaviour policies. In practice, however, Ofsted’s inspection framework effectively elevates the guidance to the status of expectation—leaving many leaders feeling compelled to comply or risk adverse inspection outcomes. 

The Education Secretary has doubled down on this stance, telling schools that phones should not even be used as calculators or for research during lessons, making the default position even tighter than before. 

Practicalities, pressures, and policy grey areas 

The guidance’s extension to other smart technology, such as devices capable of recording audio or video, adds complexity. While laptops and tablets remain permissible under BYOD schemes, policymakers seem blissfully unaware that all computing devices have similar capabilities today. It’s not about the hardware; it’s the functionality of the software! The boundary is pedagogically messy, and schools will need clear justifications for where they draw the line.  

To support enforcement, schools are encouraged to use their existing legal powers confidently. Staff can confiscate phones and are legally protected from liability if an item is lost or damaged while being held as a disciplinary measure.  

The guidance also nudges leaders toward explicitly listing mobile phones as items that can be searched for under the statutory powers available to headteachers and authorised staff. This marks a significant cultural shift, moving the issue into more formal safeguarding territory. 

The expectations extend to staff behaviour too. Teachers are not to use their own phones for personal reasons in front of pupils, framing consistency as a key element of culture. 
Even sixthformers are expected to refrain from using phones in front of younger students—challenging longstanding norms in many schools.  

Practical implementation is left deliberately open. The DfE mentions options such as: 

  • Securing phones in lockers. 
  • Pupils handing devices in at the start of the day. 

 However, both approaches require staffing, systems, and sometimes significant financial investment. Some schools have spent £75,000 or more on commercial locking solutions, fuelling concerns about whether these are wise uses of public funds when no implementation money is provided.  

Culture, communication and the role of parents 

Alongside restrictions, the DfE expects schools to teach pupils about the benefits of a phonefree environment, framing the move as a positive for wellbeing, focus and healthy social interaction. This shift from mere rulesetting to active cultural education may require new approaches to pastoral communication.  

Schools must also prepare for new expectations on parental communication. The guidance states that parents should not contact their children directly during the school day but should instead go through the school office. This may cause friction—particularly for parents who rely on immediate communication for care responsibilities or personal reassurance. Schools may need to prepare carefully for both increased administrative workload and possible pushback.  

Finally, the guidance sits alongside the unambiguous legal requirement to make reasonable adjustments under the Equality Act 2010. For some pupils with disabilities, medical needs or SEND, phone access during the school day may be essential. The law requires policies to accommodate these needs, meaning no school can truly operate a one-size-fits-all ban without flexibility. 

Where this leaves schools 

The current policy landscape is characterised less by new law and more by policy enforced through inspection pressure. Schools are being asked to implement significant cultural and logistical changes without statutory backing or funding, yet with strong signals that noncompliance could affect inspection outcomes. 

Whatever happened to preparing students for navigating adult life? Whether this approach will genuinely improve focus, behaviour and wellbeing—or instead create tensions with families, increased workload for staff, and substantial new costs—remains to be seen. One thing is certain, phones in schools have become far more than a behaviour policy issue. They now sit at the centre of debates about autonomy, safeguarding, digital literacy, and the evolving relationship between government, Ofsted and school leadership. 

 

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Why are school exclusions rising? Causes, challenges, and solutions for teachers

17 January 2026

Permanent exclusions in English schools have reached record highs, with nearly 11,000 pupils excluded in 2023-24—more than double the figure a decade ago. The most common reason? Persistent disruptive behaviour. Behind the numbers lies a deeper question: Why is behaviour deteriorating, and are schools facing too much pushback when they act? 

Why is behaviour declining in schools? 

Teachers across the country are asking the same question. Several factors seem to be driving this trend: 

  • Changing societal expectations – Less trust in public institutions, including schools. 
  • Shifting blame – Increasingly, the narrative is that the teacher is the problem, not the child. 
  • Mental health challenges – Greater openness about mental health is positive, but schools are managing complex needs without adequate support. 
  • Social media conflicts – Online disputes spill into classrooms, creating tension and disruption. 
  • Inconsistent boundaries at home – Many pupils lack clear behavioural expectations outside school. 
  • Restorative approaches – While valuable, this can also trivialise the behaviour and diluting the consequences. 
  • Teachers feeling unsupported – Staff morale suffers when behaviour policies lack backing. 
  • Curriculum relevance – A curriculum that feels disconnected from pupils’ lives can fuel disengagement. 

 

Permanent exclusion: A last resort under intense scrutiny 

Headteachers describe exclusion as their “worst nightmare,” yet they are increasingly pressed to justify decisions. No school takes the decision to permanently exclude lightly. Despite huge folders of evidence of incidents and support documented in permanent exclusion packs (PEPs), parents are demanding independent scrutiny, and legal challenges are on the rise. 

Independent Review Panels (IRPs) have more than doubled in 10 years, but reinstatement rates remain low—around 11% of cases. In most instances, schools’ decisions are upheld, provided processes are transparent and evidence is robust. 

SEND and exclusions: A growing concern 

Here’s a sobering statistic: more than half of excluded pupils have identified special educational needs. While parents often argue that an Education, Health and Care Plan (EHCP) would help, many schools report they are already providing every possible resource. 

This raises a critical question: are exclusions disproportionately affecting vulnerable children? And if so, what does that say about the wider system? Alternatively, are we too quick to give children a label to justify their behaviour? It’s contentious to say the least. 

Impact on the child 

Exclusion is not just a school decision—it’s a life-changing event so schools should be challenged. The consequences can include: 

  • Interrupted learning and lower academic outcomes. 
  • Reduced future opportunities. 
  • Increased risk of criminal activity. 
  • A cycle of disengagement and disadvantage. 

Solutions: What can we do? 

If exclusions are a last resort, then the real work lies in prevention. Here’s what teachers and policymakers should focus on: 

  • Early intervention – identify and address issues before they escalate. That includes low-level teacher-student relationships and issues at home. Building a positive rapport with students and working with them to understand their passions, perspectives and challenges can really help. 
  • High-quality alternative provision – ensure excluded pupils don’t fall through the cracks. Not isolation in a small booth but exploring creating a school within a school. Old on-site caretaker accommodation is often used as an alternative provision and internal reintegration centre. 
  • Mental health and counselling services – support pupils with complex needs. The more we can invest in adults within the school that support students the better. Budgets are tight, but roles that are student facing instead of back-office staff should be a priority. 
  • Curriculum reform – Make learning relevant and engaging. We can’t change what we have to teach, but we can change how we teach. The appointed “curriculum drafters” have a real responsibility to ensure the 2028 curriculum is both interesting and fit for purpose. 
  • Investment in SEND support – The Government really need to find ways to reduce the pressure on mainstream classrooms. 

The bottom line 

Exclusions are rising, but so is the complexity of pupils’ lives. Teachers are navigating societal shifts, mental health crises, and SEND challenges—all while maintaining learning standards. The debate shouldn’t just be about whether schools face too much pushback. It should be about how we can build a system that better supports our children. 

Want to know more? Watch our latest At the chalk face episode, where we (Craig & Dave), dig into the reality of exclusions – why they happen, what’s changed in schools.

Watch it here.

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Fail safeguarding if phone used in school?

9 January 2026

In October 2025, the political debate around mobile phones in schools escalated when the Shadow Education Secretary, Laura Trott, wrote to HM Chief Inspector Sir Martyn Oliver, urging Ofsted to treat pupil smartphone use as a safeguarding failure. In her letter, Trott argued that while Ofsted’s new inspection toolkit acknowledges phone policies, it “does not go far enough”, stating: “Smartphones are not just a behaviour management issue; they present clear safeguarding risks” and that schools where pupils are routinely able to access harmful content via phones should therefore fail the safeguarding check. She went further, comparing unrestricted phone access to other clear safeguarding breaches: “If there was a school where routinely we knew that kids could access pornography, we would obviously think that a safeguarding issue. We should see smartphones in the same light”. This proposal has prompted significant concern across the sector, not least because Sir Martyn Oliver – while personally supportive of strong restrictions, has so far stopped short of agreeing that the mere presence of phones should automatically result in a safeguarding failure. 

Phones, platforms, and pedagogy: navigating mobile tech in today’s schools 

A growing body of research shows that unrestricted mobile phone access undermines attention, memory, and overall learning quality. Meta-analyses demonstrate that mobile phone distractions significantly reduce immediate recall from lectures and readings, while digital environments with competing stimuli—notifications, messaging, or background media—impair reading comprehension and cognitive focus. These findings strongly support the case for tight restrictions, which aligns with Ofsted’s renewed emphasis on leaders “thinking carefully” about phones as part of behaviour and safety. Although Ofsted stops short of endorsing an automatic safeguarding failure for phone visibility recommended by the Conservatives, it explicitly backs headteachers who ban phones during the school day to protect learning time and meaningful peer interaction. 

The balance of evidence suggests that, pedagogically, a well implemented school day ban (with controlled, purposeful exceptions) offers the clearest benefit. Policies that reduce constant switching between tasks also mitigate the cognitive toll of multitasking, helping students recover and maintain focus more effectively. 

Why would students need a phone in school at all? 

Even though phones can distract, there are legitimate reasons why some pupils may need access—albeit in a structured, limited form. Phones often serve essential logistical and safety needs, enabling contact around transport issues or emergencies. They also function as accessibility tools: many students depend on smartphones for text to speech, translations, digital textbooks, reading supports, or authentication into school systems. 

Beyond accessibility, modern smartphones contain sensors, cameras, and processing power enabling curriculum-enhancing tasks such as fieldwork photography, AR explorations, or data collection. These uses are credible educational moments when they are planned intentionally by teachers, not initiated casually by students.  

The key distinction is between possession and use. Schools can allow the former while tightly regulating the latter, ensuring phones do not become an always available distraction. 

The educational benefits of using phones in school 

When used deliberately, smartphones can provide meaningful educational value. Studies reveal that structured, time bound use of technology boosts creativity, concentration, and critical thinking, especially with sustained weekly sessions. 

Research in primary science classrooms highlights improvements in conceptual understanding and student motivation when technology is integrated into lessons. Meanwhile, comparative studies show that these tools strengthen feedback loops. Further validation comes from independent evidence reviews: Kahoot! has achieved ESSA “promising evidence” certification for improving academic outcomes. Smart Revise has also proven to raise attainment. 

However, these benefits depend on teacher-directed, time-limited use. When phones switch from instructional tools to personal devices, the distraction penalty documented in cognitive research swiftly returns. 

In many schools, budget constraints make it difficult to provide every student with a dedicated device, yet the demand for digital access keeps growing. Modern smartphones already contain the sensors and software ecosystems needed for high quality educational tasks, meaning teachers can sometimes harness the devices students already carry rather than relying on costly one-to-one hardware programmes. Smartphones built-in capabilities—such as high resolution cameras, ARready graphics processors, and easy access to cloudbased apps—enable activities that might otherwise be out of reach in classrooms where funding for specialist equipment is limited. 

Should a school fail safeguarding if students have phones? 

Despite political pressure on Ofsted to classify smartphone presence as a safeguarding breach, the inspectorate has not taken this position. The current framework emphasises that schools must manage behaviour, safety, and digital risks effectively. Sir Martyn Oliver, HM Chief Inspector, said that if he returned to teaching, “I wouldn’t just say put your phone away, I would ban them. Ban, ban, ban them.” Yet this is not the official position of Ofsted. 

This means the real safeguarding concern lies not in possession but in poorly defined or inconsistently enforced phone policies. Schools should ensure clarity on expectations, parent communication, and staff consistency to avoid any perception of unmanaged risk. 

Australia’s social media ban for under 16s and its global implications 

Australia has become the world’s first nation to enforce a comprehensive ban preventing under-16s from accessing major social media platforms, including TikTok, Instagram, YouTube, Snapchat, Reddit, X, Threads, Facebook, Twitch, and Kick. Platforms must take “reasonable steps” to block underage access and deactivate existing accounts or face large financial penalties. The government’s stated aim is to shield young people from harmful algorithmic content—cyberbullying, violence, sexual material, predatory behaviour, and anxiety-inducing feeds. 

The ban is being watched closely by policymakers around the world. Countries from Denmark and New Zealand to Malaysia and several U.S. states are examining whether similar legislation is viable. Australia’s policy has effectively become a global test case for large-scale age gating and for compelling tech companies to adopt stronger verification mechanisms. 

Still, important practical challenges remain—particularly around age verification technologies, which must balance accuracy with privacy. ABC News reporting highlights ongoing uncertainty around how platforms will reliably verify ages without mandatory government ID checks, and how they will address children attempting workarounds. 

For schools worldwide, this shift could bring both opportunities and challenges. Reduced peer pressure strengthened national norms around delaying social media use, and more consistent parental boundaries may support school day phone bans. However, tightened platform restrictions could also lead students to increase use of unregulated alternatives or attempt circumvention. Schools will need to strengthen digital literacy and online safety education to address these evolving patterns of behaviour. 

Final thoughts 

The debate over phones in schools is evolving quickly—shaped by neuroscience, policy, pedagogy, and now global legislation. The research is clear: mobile phones create significant cognitive costs when freely accessible, but they hold genuine instructional value when deployed with purpose, structure, and teacher direction. Ofsted’s stance reinforces the need for thoughtful leadership rather than blanket assumptions, while Australia’s social media ban signals a major international shift in how governments view youth digital safety. 

Want to know more? Check out our At the chalk face video, where Dave and Kat have an honest and (at times) nerdy deep dive into the mobile phone debate.

 

For more At the chalk face videos, check out our playlist HERE.

Be sure to visit our website for more insights into the world of technology and the best teaching resources for computer science and business studies.

Stay informed, stay curious!

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Unlocking the Craig’n’Dave Resource Centre

Everything computer science teachers need in one place

16 December 2025

A deep dive into the hidden gems of the Craig’n’Dave Resource Centre

If you know Craig’n’Dave, chances are it’s because of our videos — they’re the most popular thing we make. But what many teachers don’t realise is that behind those videos sits something even more powerful: a complete, fully editable resource ecosystem designed to help you teach computer science with confidence.

In the latest episode of At the Chalk Face, Craig and Dave open the vault to explore one of their core products — the Craig’n’Dave Resource Centre. Whether you’re brand new to CnD or you’ve been using their materials for years, this behind-the-scenes look reveals just how much sits within this 4,000-strong library.

What exactly is the Resource Centre?

The Resource Centre is a growing collection of over 4,000 editable resources covering GCSE, A-level and Cambridge IGCSE computer science. It includes:

  • Fully editable schemes of learning
  • Complete sets of student workbooks
  • Presentation slide decks (the same ones used in C&D videos!)
  • Exemplar answers and A4-formatted knowledge organisers
  • End-of-topic tests
  • Delivery calendars for multiple timetables
  • Free sample units for every course

Every resource has been designed and refined by real teachers with over 20 years’ experience in the classroom. They were created to solve the same problems computer science teachers face every day — from student engagement to lesson sequencing to time-saving.

More than lessons: The hidden treasures

Beyond the main course materials, there are features many teachers don’t know exist:

  • The Essential Algorithms & Data Structures Book — a complete, specification-aligned guide with code in three languages.
  • Telium — a brilliant end-of-Year-10 project that ties together everything students have learned.
  • Logic gate symbol packs, exam technique guides and terminology lists.
  • “Little extras” packs full of those small but essential items teachers always need.

And yes — everything is fully editable, so you can adapt it to your school’s needs.

Why teachers love it

Even if you already have schemes, resources or established lessons, the Resource Centre is perfect for refreshing your approach, boosting confidence, finding inspiration, or improving student outcomes with tried-and-tested materials.

Get your FULL ACCESS to the Resource Centre HERE.

Watch the full video

🎥 Dive deeper and see the full walkthrough here

Explore more from Craig’n’Dave

Discover all our resources, courses and teaching tools at: 👉 https://craigndave.org

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The biggest curriculum shake-up in a decade – Part 3

Understanding the new Progress 8 and Attainment 8 model: What it means for computing teachers

28 November 2025

In part three of our curriculum and assessment review breakdown, we’re turning our attention to something every secondary teacher needs to understand: the changes to Progress 8 and Attainment 8 — and how these shifts affect curriculum planning, subject value, and, importantly, computing.

If you’ve missed parts one and two, don’t panic, you can find them here – 

Curriculum and Assessment Review – PART 1

Curriculum and Assessment Review – PART 2

And the full downloadable CAR report breakdown is available HERE – Curriculum and Assessment Review Summary

 

Where we are now: The current model in brief

For years, schools have been judged on a system built around eight subject “buckets”, with English and maths double-weighted, three EBacc subjects required, and the final slots filled by students’ strongest remaining grades. It’s a model most of us know inside-out, even if it’s felt increasingly restrictive — especially for creative subjects.

With the EBacc now officially scrapped for being too narrow and no longer fit for purpose, the Department for Education (DfE) is reshaping the performance framework. And while the changes may look subtle at first glance, the implications are anything but.

 

What’s new: Science, breadth, and category slots

The new model keeps English and maths double-weighted but introduces two science slots (including computer science), followed by a broader “breadth” section composed of four buckets. Crucially:

  • Buckets 5 and 6 must each be filled by a GCSE from two different categories:
    A – Humanities, B – Creative, C – Languages. 
  • Buckets 7 and 8 then take the student’s next two highest grades from any subject. 

The DfE is also consulting on a possible Category D (Science/Computing), which could give computing more flexibility — but it isn’t guaranteed.

 

But what about computing? Does this help us?

Here’s the honest answer: maybe… but maybe not.

Without a Category D, computer science risks being squeezed out of the early buckets entirely. Most students will naturally fill the science slots with combined science or triple science results — leaving computing to fight it out in buckets 7 and 8.

With a Category D, computing has a better shot of contributing to performance measures, making it easier for departments to justify staffing, timetable time, and KS3 curriculum depth. But even then, competition with biology, chemistry, and physics remains fierce.

And that’s the heart of the issue: the new model doesn’t fully resolve the long-standing challenge of establishing computing as a core, protected curriculum area.

The new Progress 8 and Attainment 8 framework offers more breadth, more space for creative subjects, and a genuine attempt to modernise. But for computing, the impact is still uncertain — and for many departments, the battle for recognition continues.

 

Watch the full video for deeper insight

Catch the full Chalk Face discussion here and watch us unpack all the changes.

Download our FREE summary of the CAR report – Curriculum and Assessment Review Summary

Explore more resources, updates, and teacher support at craigndave.org

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The biggest curriculum shake-up in a decade – PART 2

What the CAR review means for teachers

21 November 2025

Welcome back to the next instalment of our deep-dive into the Curriculum and Assessment Review (CAR). Part one explored broad curriculum design and assessment reform; part two gets straight to the good stuff: What the upcoming changes actually mean for computing teachers.

This new review is a hefty read. Fortunately, this series breaks it all down so you don’t have to! Here’s what matters most for computing.

Computing time is shrinking – and that’s a problem

One of the standout concerns raised in the CAR is the reduction in curriculum time:

  • Key Stage 3 has dropped from 4% to 3%.
  • Key Stage 4 has dropped from 5% to 2%.

Schools increasingly push computing into carousels, shortened timetables, or — at Key Stage 4 — only offer it to GCSE Computer Science students. Shockingly, only 10% of schools surveyed teach computing to all KS4 students, despite it being a foundation subject.

The review makes it crystal clear: every pupil should study computing until age 16, just like PE, RS and citizenship.

GCSE Computer Science is being replaced

This news has caused quite a stir: the current GCSE Computer Science will be replaced by a broader, more balanced GCSE in Computing.

But why?

  • The existing qualification is “too narrow and specialised”.
  • Students score lower in Computer Science than in almost all other subjects.
  • The gender gap hasn’t improved despite years of initiatives.

The good news: the government has confirmed that core computer science principles — including programming and algorithms — will remain. They just won’t stand alone as a full qualification anymore.

Expect a GCSE that blends computer science, IT, digital literacy, real-world applications, and modern computing concepts.

Computing won’t sit alone anymore – subjects will intertwine

The new curriculum will be the most holistic version yet. Skills will overlap between subjects, and computing will act as an engine powering others, such as maths, DT, geography, and citizenship.

The programme of study will be machine-readable and interactive, showing explicit links across subjects. Think Google Earth in geography, algorithms discussed in English when analysing bias, or spreadsheet skills needed for financial literacy.

Digital literacy and AI: Now national priorities

Two major themes run across the whole review:

Digital literacy

Defined by the government as the knowledge, behaviours, and confidence needed to use technology safely and critically. This includes:

  • online safety
  • digital footprints
  • cyber security
  • fake news and bias
  • navigating modern interfaces
  • basic operational skills, many pupils no longer have

Schools must offer explicit digital education across all key stages.

AI literacy

AI will feature throughout the curriculum, but computing is its “home”. Students will learn:

  • how AI works
  • its limitations
  • ethical implications
  • how to use and question it

Given that students already use AI outside school, this is a long-overdue update.

So what next?

The CAR review sets the stage for the biggest shift in computing education in a decade. From a rebalanced curriculum to the arrival of a new GCSE, the coming years will reshape what — and how — we teach.

For now, the key message is simple: computing is becoming broader, more relevant, and more cross-curricular than ever before.

Download our Curriculum and Assessment Review summary HERE- Curriculum and Assessment Review Summary.

 

📺 Watch our breakdown here as we talk through the key findings in our signature chalk face style.


🌐 Explore more resources, guides and updates on the Craig’n’Dave website — your home for high-quality computing education support.

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The biggest curriculum shake-up in a decade

What it means for computing teachers

14 November 2025

From GCSE computing to AI qualifications: unpacking the curriculum and assessment review.

If you’ve been anywhere near education news lately, you’ll know that the Curriculum and Assessment Review (CAR) has landed — all 180 pages of it (plus a hefty 61-page government response for good measure). It’s the most significant look at the education system from ages 5 to 18 in over a decade. And if that sounds like a lot to digest, don’t worry — we have done the reading so you don’t have to.

Let’s check out what this means for computing teachers, students, and schools across the UK and break down the key takeaways.

GCSE Computing replaces GCSE Computer Science

One of the biggest announcements is the shift from GCSE Computer Science to GCSE Computing. At first glance, it’s just a word change — but it’s much more than that. The new qualification aims to better reflect the breadth of the digital world by combining computer science, IT, and digital literacy.

That means programming and algorithms will still be at the heart of the course, but there’ll be a stronger emphasis on digital skills and critical application — preparing students for a world where tech is integral to every industry.

A new qualification in AI and data science?

There’s also talk of a new Level 3 qualification in Data Science and AI. While it’s not confirmed whether this will be an A-level or T-level, it signals an exciting potential pathway for students keen to explore cutting-edge technology in more depth.

Academies to follow the national curriculum

Another big change: academies will be required to teach the national curriculum. This levels the playing field so every student receives the same core education — including computing — no matter where they are in the country.

NEA changes and assessment reform

Non-examined assessments (NEAs) will only continue where they’re essential. For computing, that means no return of coursework-style assessments at GCSE, though there’s still debate around whether they’ll remain at A level. The government has also made it clear that externally marked exams remain the fairest and most reliable assessment method, particularly in the age of AI.

A new era for digital literacy

Digital literacy will take on a far greater role, not just in computing, but across the entire curriculum. Expect more clarity on what “digital literacy” actually means, and a renewed focus on preparing students for life and work in a tech-driven world.

The changes will roll out gradually — with new programmes of study expected by 2028 and the first teaching of new GCSEs in 2029. 

But one thing’s clear: this shake-up is set to reshape computing education for the next generation.

A modern holistic curriculum

This will be the most modern and holistic National curriculum to date.  No subject sits in a vacuum, and this is no more true than in Computing, where so much of what we do is transferable to other subjects.  It is clear for example, that some subjects, digital methods now influence the content and how it is taught. 

Where it does, the government will include a requirement for the relevant digital content in those subjects’ programmes of study and will ensure that it aligns with the computing curriculum, to reduce the risk of duplication.

Broader still, the National curriculum revised programmes of study will prioritise core concepts in each subject and make sure they are coherent within and across subjects.

To enable this, the new National Curriculum will be an online, machine-readable and interactive.  It will visually represent the links within and between subject areas and gives connections to prior learning, helping teachers to contextualise learning across traditional subject boundaries.

 

🎥 Want to hear Craig and Dave’s full breakdown?
Watch the video now for their insights, discussion, and a free downloadable summary of the CAR report – Curriculum and Assessment Review Summary

💻 Explore more resources, updates, and teacher support at craigndave.org

 

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High expectations from the first minute

7 November 2025

In Computing, every minute counts. Setting high expectations isn’t about demanding work or creating unnecessary pressure—it’s about clarity. It means knowing exactly what you want from your students and using simple, consistent techniques to achieve it. The most effective teachers don’t leave the first few minutes of a lesson to chance. They use this time purposefully to establish routines, reinforce learning, and create a calm, focused atmosphere where students know what to do and why it matters. Here’s how you can make the beginning of every lesson count.

1. Meet and greet: the power of the doorway

The moment students arrive is your first opportunity to assert calm authority. Greet students at the door with their name, a smile and a clear expectation for how they should enter the room. This bottleneck puts you in control. Don’t allow students to just pile into the room. An orderly entry sets the tone for the rest of the lesson. Don’t hesitate to stop students from entering if they are being disruptive—this reinforces that your classroom is a place of focus and respect.

Tip: Use positive reinforcement for students who enter appropriately and calmly redirect those who don’t to leave and enter again.

2. Engagement on entry: establishing a routine

Idle time is the enemy of learning. Students should know exactly what to do the moment they walk in. Whether you call it a starter, do-now activity, or engagement on entry, the key is consistency. This routine builds a culture of focus and reduces wasted time.

Tip: “What are we doing?” should never be a question in your classroom.

3. Combat the forgetting curve with recall activities

The start of the lesson is the perfect time for retrieval practice. A well-designed recall activity helps students strengthen their memory and make connections with prior learning. However, avoid tasks with a fixed end point—some students will finish early and become disengaged.

Tip: Provide more work than there is time to complete.

4. Why Smart Revise Quiz is the perfect solution

For GCSE and A-level students, Smart Revise Quiz is a powerful tool. Its dynamic, never-ending loop of low-stakes multiple-choice questions ensures that students are always engaged. The platform uses intelligent algorithms for spacing, interleaving, and personalisation, targeting each student’s weaker areas and adapting the question order accordingly.

Tip: With Smart Revise no student finishes early and no student is left behind.

5. Preparing for the lesson ahead

Alternatively, use the start of the lesson to prime students for what’s to come. At A-level, Craig’n’Dave micro-activities are excellent for this purpose. At GCSE, every lesson includes a starter that aligns with the learning objectives, helping students transition into the right mindset.

Tip: If you use Smart Revise, it is best to stick to the routine. You can also use starter activities at any point in the lesson as class discussions or plenaries instead.

6. Inclusive and accessible activity

The 2025 Ofsted framework places a stronger emphasis on inclusion and equity. This means ensuring that all students, including those with SEND or from disadvantaged backgrounds, can access and engage with the starter activity. That’s why a low-stakes, low-barrier to entry activity is better for the start of the lesson. Inspectors will be looking for how well teachers identify and reduce barriers to learning. It is important that inclusive practices are embedded in everyday routines.

Tip: Too much challenge too soon can turn off students before they even begin.

7. Why seven minutes matters

The duration of your starter activity sends a message. Five minutes can feel rushed and unimportant. Ten minutes may seem arbitrary. But seven minutes? It feels intentional. It’s long enough to be meaningful, short enough to maintain momentum.

Tip: Odd numbers feel deliberate. Use them to your advantage.

8. Transitioning into the lesson

Once the initial activity is complete, have a clear, recognisable signal to begin the main lesson. This could be a phrase, a countdown, or a visual cue. The goal is for students to respond quickly and without repeated prompting.

Consistency breeds compliance. Familiar cues reduce friction.

9. Use consistent language and positive signals

High expectations are not just about what you do—they’re also about what you say and how you say it. The language you use in the classroom communicates your belief in students’ potential and shapes the culture of learning. When you speak with clarity, purpose, and positivity, you signal to students that they are capable, that their time matters, and that learning is serious business. Use consistent, positive phrasing that reinforces routines and expectations. For example, instead of saying, “Stop messing around,” try, “Show me you’re ready to learn.” Non-verbal cues are equally powerful. A raised hand, a countdown, or a visual timer can become familiar signals that prompt immediate responses without the need for repeated instructions.

Tip: Play the long game. Over time, these cues become part of the classroom rhythm, reducing the need for correction and increasing student autonomy.

10. Eliminate distractions before you begin

Before students enter the room do a quick sweep. Clear up any loose pens, paper and rubbish. Ensure the computers are turned on and ready for a student to log on. If there are technical difficulties the engagement on entry activity gives everyone else something to be working on while you diagnose the problem. Before diving into new content, ensure you have every student’s full attention. Techniques include gathering students at the front of the room, using screen-locking software to prevent off-task behaviour and waiting silently until you have 100% focus.

Tip: Own the room before you teach. Never compete with distractionsdon’t talk if a student is talking, wait for perfect silence.

Final thoughts: routines build culture

High expectations aren’t about being strict—they’re about being consistent. When students know what to expect and what’s expected of them, they feel secure and ready to learn. The start of the lesson is your opportunity to build that culture, every single time.

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High expectations and homework: A culture worth building 

"They can because they think they can." — Virgil 

1 November 2025

High expectations are often spoken about in education but rarely unpacked in a way that feels practical and actionable. We all think we have high expectations, but what do they actually look like in the classroom—and how do they extend beyond it, especially into the realm of homework? 

This blog explores what we mean by high expectations and how the approach of Craig’n’Dave offers a compelling, practical model for embedding them into everyday teaching practice. 

What do we mean by high expectations? 

High expectations are not just about aiming for top grades or enforcing strict rules. They are about believing in every student’s potential and creating the conditions for them to meet that potential. High expectations were not always immediately visible in every classroom, but they should be there through clear routines and a belief in effort. High does not mean hard. These expectations are not ideals; they are daily habits. 

Homework as a reflection of high expectations 

Homework is often a battleground. Too often, it’s set because policy demands it, not because it supports learning. Craig’n’Dave challenge this status quo with a research-informed, student-centred approach that exemplifies high expectations in action. 

Our philosophy is simple: homework should be meaningful and accessible to all. It should not widen the attainment gap by relying on parental support or assuming every student has a quiet place to study. Instead, it should: 

  • Be short and focused. 
  • Require no parental help. 
  • Be the same for all students. 
  • Prepare students for upcoming lessons. 
  • Support memory retention. 
  • Be something students are happy to do. 

This is not about lowering the bar—it’s about raising it in a way that is fair, inclusive, and effective. 

The flipped classroom: high expectations in practice 

Craig’n’Dave’s flipped learning model is a powerful example of high expectations done right. Students are asked to watch a 4–12-minute video before the lesson and take notes using the Cornell method. This prepares them for class discussions and activities and builds habits of independence and accountability. 

What makes this approach high expectation? 

  • It assumes students can and will prepare—and holds them to it. 
  • It builds habits—students quickly learn that preparation matters. 
  • It respects students’ time and capacity—short, focused tasks are more effective than long, open-ended ones. 
  • It shifts the teacher’s role—from content deliverer to learning facilitator, able to target support where it’s most needed. 

Even when students don’t complete the homework, the system is designed to adapt without derailing the lesson. That’s high expectations with flexibility—not punishment. 

When the flipped classroom fails 

Of course, the flipped classroom isn’t immune to challenges. One of the most common pitfalls is when students don’t do the homework—and teachers begin to expect that they won’t. This creates a downward spiral of diminishing expectations. Teachers stop setting the work, or stop holding students accountable for it, and the culture of high expectations quietly erodes. 

But this is precisely the moment when high expectations matter most. The work is deliberately short, accessible, and achievable. It’s not that students can’t do it—it’s that they need to believe it matters, and that their teachers believe they will do it. “They can because they think they can” can also be expressed to teachers as, “they will because we think they will.” 

Holding the line—consistently, calmly, and with belief—is what builds the habits that make flipped learning work. It’s not about punishment or pressure. It’s about trust, structure, and persistence. 

Smart Revise and the power of weekly goals 

Smart Revise, a platform designed to support retrieval practice, spaced learning, and long-term memory retention also supports high expectations. The new goals feature automatically sets personalised weekly targets for each student—covering quizzes, key terms, and advanced questions. These goals start small and scale up as the course progresses, reinforcing the idea that progress is expected, achievable, and measurable. 

Importantly, Smart Revise doesn’t punish students who fall behind—it supports them. Its regular use builds a rhythm of learning that reflects high expectations: every student, every week, making progress. It’s a quiet but powerful way to say, “We believe you can do this—and we’re going to help you get there.” 

Culture, not compliance 

High expectations are not about perfection or pressure. They are about belief, structure, and consistency. They are about creating a culture where students know what is expected, why it matters, and how to meet those expectations. 

Craig’n’Dave’s approach to homework shows us that high expectations don’t have to be loud or punitive. They can be quiet, consistent, and deeply effective. When students know that preparation is expected that their effort matters, and that support is there when needed—they rise to meet the challenge. 

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When the cloud breaks: lessons for teachers from the AWS outage 

24 October 2025

On a busy Monday morning, teachers across the UK found themselves staring at error messages instead of lesson plans, thanks to a major outage at Amazon Web Services (AWS) on 20th October 2025. According to BBC News live reporting, over 500 companies were affected globally, with 400,000 reports in the UK alone. Platforms like Snapchat, Zoom, Duolingo, Roblox, Canva, and even HMRC were hit. Even Ring doorbells stopped working. And while not all services were down—Google and Meta platforms remained stable—the ripple effect was undeniable. 

For educators, this disruption is more than a tech hiccup. It’s a reminder of just how deeply embedded cloud services are in our daily routines. 

Schools and the cloud: a modern dependency 

Today’s schools rely heavily on online systems to function smoothly. Email communication is essential for staff, parents, and external agencies, while cloud-based registration systems play a critical role in tracking attendance and safeguarding. Edtech platforms have become central to lesson delivery, homework submission, and student feedback. Even professional development and collaboration now depend on tools like Microsoft Teams and Google Workspace. 

When these systems falter, the consequences are immediate and far-reaching. Teachers may find themselves unable to access registers, students locked out of learning platforms, and communication channels grinding to a halt. 

Remembering the offline days 

For many seasoned educators, today’s outage may have stirred memories of a time when digital reliability wasn’t a given. Back then, internet connections were so unpredictable that lesson resources were always saved locally—just in case. Paper registers were the norm and misplacing one could trigger a frantic search through the staffroom. Lesson plans were printed out, and interactive whiteboards were considered a luxury. 

In those days, resilience was built into the system. Educators planned for failure because it was expected, and that mindset helped them adapt quickly when things went wrong. 

The risk of reliability 

Ironically, the very reliability of today’s systems has made us less prepared for their failure. We’ve grown accustomed to seamless access to everything—from student data to interactive quizzes—without giving much thought to what happens when the cloud goes dark. 

This isn’t to suggest we should revert to outdated methods. The advantages of digital systems are undeniable. However, today’s outage serves as a wake-up call: contingency planning is not optional. It’s always useful to have a folder of printed and relevant activities for each year group. 

The teacher’s challenge 

When systems fail, it’s teachers who bear the brunt of the disruption. They scramble to adjust lesson plans on the fly, manage student expectations when tech-based activities suddenly become unavailable, and cope with the stress of disrupted routines and lost teaching time. 

It’s not just inconvenient—it’s exhausting. The emotional and logistical toll on educators is significant and often overlooked, but with a little disaster planning it can be less of a headache. Not if, but when it does happen. 

Some ideas for Computing teachers might include having a physical lever-arch folder of activities ready for those down-days: 

  • Printing our GCSE workbooks and relevant A level micro-activities so you can photocopy them to do offline. 
  • Unplugged activities. Getting the students to model the CPU FDE cycle, searching and sorting algorithms. Graph optimisation algorithms at A level. Networking with tennis balls and string. 
  • Unplugged Parsons problems. Either card sorts or a physical activity where each student has one line of code from a program printed on paper. Use our Time2Code programs as stimulus for this. 
  • Trace tables: trace the output from programs. Our Revision unit is also great for this. 

For more insights and to get the full story and watch our podcast on our YouTube channel At the chalk face. 

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The hidden cost of non-specialist teaching in Computing

Why key stage 3 deserves more attention

17 October 2025

In secondary schools across the UK, a growing concern is emerging around the use of non-specialist teachers—particularly in computing. While this issue affects many subjects, computing is uniquely vulnerable due to its rapid evolution, technical complexity, and the foundational nature of early learning. A recent Teacher Tapp poll for Tes revealed that over a third of Year 7 students are taught by non-specialists. This trend raises serious questions about the long-term impact on student outcomes and subject uptake. 

What is a non-specialist teacher in Computing? 

A non-specialist teacher is someone delivering a subject they are not formally trained or qualified in. In computing, this might be a teacher whose background is in another discipline—perhaps maths or business—who has been asked to teach computing due to staffing shortages or gaps in their timetable. 

A computing specialist typically holds a degree or formal qualification in computer science or a related field, has experience in programming, systems architecture, or digital literacy, and understands the pedagogical approaches specific to computing education. Without this foundation, non-specialists may struggle to deliver the depth and accuracy required. 

Why are non-specialists mostly used in lower year groups? 

Schools often prioritise specialist teachers for Key Stage 4 and 5, where GCSE and A-level results are at stake. As a result, Key Stage 3 (Years 7–9) is frequently staffed by non-specialists. This is seen as a pragmatic decision—yet it may be a strategic misstep. 

The risks of non-specialist teaching in Computing 

Computing is not a subject that can be taught effectively without deep understanding. Non-specialists may lack confidence in coding, struggle to explain abstract concepts like algorithms or data structures and rely heavily on worksheets or outdated resources. This can lead to: 

  • Superficial learning experiences. 
  • Misconceptions that persist into later years. 
  • Reduced student engagement and enthusiasm. 

Impact on students: a catch-up crisis 

By the time students reach Year 10, many require intensive intervention to prepare for GCSE computing. This catch-up sprint is costly, stressful, and often avoidable. If students had received high-quality instruction in Key Stage 3, the need for intervention would be significantly reduced. 

Moreover, students who don’t build a strong foundation early on are less likely to choose computing as a GCSE option. This not only affects individual career pathways but contributes to the national decline in computing uptake—a worrying trend given the UK’s digital skills gap. 

Is this a mistake in strategy? 

Absolutely. Computing is a cumulative subject. If students don’t grasp core concepts like logic, abstraction, and programming fundamentals in Years 7–9, they are at a disadvantage later. Poor early experiences can also damage perceptions of the subject, leading to lower engagement and fewer students opting in at GCSE level. 

The silver lining: non-specialists who aspire to specialise 

Not all non-specialist teaching is detrimental. Some teachers, though not formally trained, bring enthusiasm and a growth mindset. These individuals: 

  • Ask insightful questions. 
  • Actively seek to improve their subject knowledge. 
  • Reflect critically on their teaching methods. 

With the right support, these teachers can become excellent computing educators. Their journey often leads to deeper pedagogical awareness and a strong commitment to student success. 

What’s the solution? 

To address this issue, schools and policymakers must: 

  1. Invest in specialist recruitment
    While the government currently offers generous bursaries—up to £30,000—to attract computing graduates into teaching, retention remains a major challenge. Many new teachers leave the profession within just a few years. The Department for Education promotes a starting salary of £30,000, but this figure still falls £10,000–£20,000 short of what a graduate software engineer might expect in industry. If we want to compete for talent, we need to rethink not just recruitment, but long-term career development and support.   
  2. Support aspiring specialists
    Non-specialist teachers who aspire to specialise in computing need more than goodwill—they need structured support. While grassroots organisations like Computing At School (CAS) and Digit<all> offer excellent free CPD and networking opportunities, these are rarely embedded into teachers’ timetables. As a result, many passionate educators face burnout trying to upskill in their own time. Schools must make space for professional growth, not just expect it. 
  3. Recognise the value of Key Stage 3
    Key Stage 3 is often overlooked in staffing decisions, yet it’s where students form their first impressions of computing. School leaders must treat early computing education as a strategic priority, not a scheduling afterthought. Long-term planning should place specialist teachers in front of younger students—not just to improve outcomes, but to inspire future uptake. Investing in Key Stage 3 is investing in the future of the subject. 

If we continue to undervalue Key Stage 3 and rely heavily on non-specialist teaching, we risk undermining student potential and the subject’s long-term viability. The solution lies in recognising the importance of early computing education and empowering both specialists and aspiring specialists to deliver it with confidence and clarity.

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GCSE Results analysis 2025

9 September 2025

As the 2025 GCSE results land in students’ hands, the data paints a picture of a system still adjusting to post-pandemic norms, evolving grading standards, and shifting student interests. While the sciences continue to shine and core subjects like English and Maths remain challenging, one subject stands out for its complex narrative: Computer Science

The big picture: science Soars, core subjects struggle 

This year’s results reaffirm the dominance of the sciences. Chemistry leads with 91.5% of students achieving grade 4 or above and 46.1% reaching grade 7+, closely followed by Physics and Biology. These subjects continue to attract high-performing students and deliver strong outcomes. 

In contrast, English Language and Maths—the bedrock of the GCSE curriculum—remain among the most difficult for students: 

  • English Language: Only 59.7% of students achieved a grade 4 or above, and just 15.5% reached grade 7+. 
  • Maths: Slightly better, with 58.2% passing and 16.5% achieving top grades. 

These figures highlight persistent challenges, raising questions about whether the curriculum really is fit for purpose, teaching strategies, and student support. 

Computer Science: A subject misunderstood 

Computer Science tells a more nuanced story. On the surface, its results appear modest compared to other subjects: 

  • 69.2% of students achieved a grade 4 or above. 
  • 29.6% reached grade 7+. 

While these figures are below the average for many traditionally high-performing subjects, they represent a continued improvement from previous years. In 2024, following Ofqual’s decision to adjust grading standards at grades 9, 7, and 4, Computer Science saw a significant uplift—top grades rose to 28.3% and pass rates to 68.3%, both up nearly four percentage points from 2023. These gains have been sustained into 2025

However, the perception of Computer Science as a “hard” subject persists. When students and parents compare grade distributions across subjects, Computer Science can appear more punishing—despite its growing relevance and improved outcomes. This perception risks discouraging students from choosing it at GCSE level. 

Is Computer Science in decline? 

Anecdotal reports from teachers suggest that interest in Computer Science is waning. Some schools are evaluating their outcomes, the difficulty in recruiting teachers and concluding that it is no longer worth offering a GCSE. Entries for the subject have been steadily rising over the last few years, but in 2025 four thousand entries have been lost and we are back to the 2023 figures, leading some to ask whether this is the beginning of a sharper decline. 

Set against a backdrop Computer science graduates struggling to secure their first jobs (https://www.bbc.co.uk/news/articles/cm21dvg8l1go), the challenge is now to ensure the subject remains attractive and relevant to both potential teachers and students. Computer Science is improving in terms of outcomes – yet unless the grading profile becomes more competitive with other subjects, it may continue to be seen as a risky choice by students aiming for top grades. 

Conclusion: A call for balance 

The 2025 GCSE results reveal a system still finding its balance. While the sciences thrive and core subjects struggle, Computer Science stands at a crossroads. 

To ensure its continued success, we must celebrate its progress, support its teachers, and ensure that grading standards reflect both fairness and the subject’s unique challenges. Only then can we secure its place as a cornerstone of 21st-century education.

For more insights and to get the full story and watch our podcast on our YouTube channel At the chalk face. 

 

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