Not at all. Ubuntu Pro (which CReSED runs on) is virtually immune to viruses, ransomware, and the common malware that plagues Windows networks. No antivirus bloatware needed. And for office software, we include LibreOffice — a full-featured suite that opens and edits Word, Excel, and PowerPoint files with ease.
You get everything you need to write, calculate, present, and collaborate — without paying for Microsoft’s monthly subscriptions or fighting constant compatibility issues.
Yes — and we’ll help you do it. Many Australian schools are eligible for digital technology and infrastructure grants that cover open-source solutions. Because CReSED is low-cost, Australian-based, and aligned with digital inclusion goals, it ticks all the right boxes for funding applications.
We’ll provide you with a tailored quote and supporting documents to submit with your funding application. In many cases, schools have been able to fully cover their rollout using local, state, or federal education grants. You’re not alone in this — we’ll guide you through it.
That’s exactly what it’s designed for. CReSED brings new life to laptops and desktops that can’t handle Windows 11 or the latest macOS. We’ve run it successfully on devices over 10 years old. It’s lean, efficient, and optimized for low-resource machines — meaning no more sending usable computers to e-waste just because the software can’t keep up.
In fact, many schools report faster performance on CReSED than they ever got from Windows. You’ll save money and reduce landfill — a win for your budget and the planet.
Absolutely. If you’re not ready to switch everything at once, we support dual-boot configurations or virtual environments where needed. That way, you can run CReSED on the same machine as Windows during your transition phase — no pressure, no downtime.
You can even deploy it in a few classrooms first, get feedback from staff and students, and expand as confidence grows. We’re here to support your rollout at your pace.
Yes — and better than that, they’re included for free. CReSED comes preloaded with LibreOffice, a professional-grade office suite with full compatibility for Microsoft formats. You can open, edit, and save Word documents, Excel spreadsheets, and PowerPoint presentations without breaking a sweat.
There’s no need to retrain your staff or buy extra licenses. It’s familiar, fast, and fully featured — and it doesn’t come with the cloud lock-in or nagware.
CReSED includes a wide range of software tailored to the modern classroom. For younger students, you get tools like Tux Paint, GCompris, and Scratch. For secondary, you’ll find Python, Geogebra, LibreCAD, Inkscape, and full multimedia editing tools like Audacity and Kdenlive for podcasting or video assignments.
It’s a rich, creative toolbox — not just a replacement for Microsoft Office, but a launchpad for STEM, the arts, and digital literacy. And if you need something specific, we’ll install it for you.
Absolutely — CReSED was built with modern classrooms in mind. It includes pre-installed tools for teaching coding (like Scratch, Python, and Visual Studio Code), robotics (with support for Arduino and Raspberry Pi environments), and full creative media software for audio editing, podcasting, digital art, animation, and video production.
You won’t need to go searching or pay extra for third-party tools. We give students everything they need to build games, design apps, edit films, or automate projects — straight out of the box. Whether you’re teaching ICT, STEM, or digital media, CReSED is ready on day one.
Scaling up is what CReSED does best. Whether you’re adding one extra lab or rolling out to an entire district, we’ll help you clone your setup, deploy across your network, and maintain consistency — without doubling your workload.
You don’t need enterprise-level infrastructure to scale. Our tools let you grow on your terms, with automated provisioning, central management, and optional cloud integration that’s built to handle hundreds of devices with ease.
Here’s a question I want you to sit with for a moment. The last time you replaced a fleet of school laptops, did they fail? Did the screens crack, the keyboards stop working, the batteries refuse to charge? Or did someone — a vendor, a department, a Microsoft update — tell you they were no longer supported?
I’ve been working in IT for 25 years. I’ve built secure networks for governments. I’ve worked in 27 countries. And in the last decade — working with Australian schools — I’ve watched the same scene play out over and over again. A trolley of laptops gets wheeled out of a classroom. They’re not broken. The CPUs still work. The RAM is still fine. The hard drives still spin. The hardware is, by any sensible definition, still working.
And yet the laptops are about to be retired. Why? Because the operating system stopped getting updates. Because a critical application now requires a newer version. Because the IT vendor flagged them as “end of life.” Because the software moved on — and the hardware was left holding the bag.
This is what I want every ICT manager, business manager, and principal in Australia to understand: we don’t have a hardware problem in our schools. We have a software one. And once you see it that way, almost everything about how we procure, manage, and retire devices in Australian education starts to look different.
Hardware doesn’t get worse with time. A laptop that ran perfectly well in 2020 still runs perfectly well today, in pure mechanical terms. The transistors haven’t degraded. The instruction set hasn’t changed. The clock speed hasn’t dropped. The device is, on any objective measure, the same device it was the day it came out of the box.
What has changed is everything around it. Operating system updates raise the minimum specs. Web applications get heavier — the same Gmail tab in 2026 uses several times the memory it did in 2018. Office suites that once fit on a floppy disk now run to gigabytes and require constant internet connectivity. Background processes — telemetry, indexing, syncing — quietly consume CPU cycles that used to be available for the actual task.
The result is a slow squeeze. The laptop hasn’t got worse. The world it lives in has got more demanding. And eventually a perception sets in — among teachers, among students, among IT staff — that the device is “old,” “slow,” or “tired.” It isn’t. It’s just been asked to do more, by software that wasn’t designed for it.
The device isn’t the bottleneck. The software is. This is the line I keep coming back to
Then comes the bigger problem, and this is where it shifts from inconvenient to expensive. Compatibility. One critical application — your assessment platform, your finance system, your single sign-on — drops support for the older operating system. Or a new operating system release simply refuses to install on the hardware. And the whole device gets retired, not because it failed, but because it was declared unsupported.
What we’re dealing with is not failure. It’s exclusion.
If you want to see this dynamic in its purest form, look at what happened in October 2025. Microsoft ended free support for Windows 10. Devices around the world — still working, still capable, still doing the job — were instantly classified as “unsupported.” And the message to schools, businesses and households was simple: upgrade, pay for extended security, or accept the risk.
The numbers are extraordinary. Microsoft itself estimates that roughly 240 million PCs worldwide cannot upgrade to Windows 11 because they don’t meet the hardware requirements — most notably the TPM 2.0 chip [1]. In Australia, that’s somewhere in the order of three to four million machines. A significant share of them are sitting in schools.
These devices haven’t broken. They haven’t worn out. They’ve simply been ruled ineligible for the next operating system. And the path Microsoft offers, in order of preference, is:
The unspoken fourth option — run something else on the device — is the one most school IT leads have never seriously considered. And it’s the one that, in my view, changes the economics of school IT entirely.
Leanne Wiseman, Professor of IP Law at Griffith University, Brisbane: “The end of Windows 10… highlights the broader systemic issue of software-driven obsolescence. Increasingly brands are failing to properly support their products — from laptops to medical devices and assistive technologies. By stopping software support, this forces Australians to replace these products, increasing costs and creating huge amounts of waste.” [3]
This isn’t a fringe view. The Right to Repair movement in Australia, several state governments banning e-waste from landfill, and a growing body of academic work all point in the same direction: the problem isn’t the hardware. It’s the software lifecycle.
Let’s do the maths on a typical Australian school. Imagine 400 students and 50 staff. A blended fleet of, say, 500 devices. Refresh cycle: every four years.
Each refresh cycle costs the school somewhere between AU$500,000 and AU$1 million, depending on device class and procurement model. That’s between AU$125,000 and AU$250,000 per year, just on devices, before you add software licensing, support contracts, ESU fees, or the cost of disposing of the old fleet. And much of that spend is driven not by hardware failure, but by software requirements that have crept upward year on year.
Now think about the carbon. According to the Tech Carbon Standard, an industry reference framework, around 80% of a laptop’s total lifecycle emissions are embodied carbon — generated during manufacturing, transport, and end-of-life, not during use [4]. Dell’s own published Product Carbon Footprint documents put manufacturing alone at 81% for an example laptop model [5]. So when a school replaces a working device after four years instead of running it for seven or eight, it’s writing off the majority of the carbon cost — and most of the financial cost — for no actual benefit in learning outcomes.
80%
Of a laptop’s lifetime carbon footprint is generated before it ever reaches a classroom. Replace too early, and you’re throwing most of that away.
This is the bit that should make every school business manager pause. We are paying — financially, environmentally, and in equity terms — for an upgrade cycle we didn’t ask for. The hardware was never going to fail in four years. The software just decided it should.
When I look at how the gap actually opens up in a school — between students who have access and students who don’t — it’s almost never a single decision. It’s five smaller ones, made over years, that gradually narrow who gets to participate.
Devices aren’t broken. They’re “unsupported.” One library drops backward compatibility, one OEM stops releasing drivers, one vendor declares end of life, and the whole device is retired. Not because it can’t do the work — because something downstream decided it shouldn’t.
Three years in one school, eight in another. Same curriculum. Same expectations. Completely different capability. In Bring Your Own Device (BYOD) classrooms it gets worse — two students sitting at the same desk can be working on completely different generations of hardware, with completely different software support.
A device can function perfectly well — boot, run programs, open files — but if it can’t run the required platform, it’s effectively excluded. The exam software won’t install. The assessment portal won’t load. The student is locked out of the task, not by their ability, but by their hardware.
Software vendors test on current-generation hardware. They optimise for the latest CPU, the latest GPU, the latest accelerator. The lowest common denominator disappears from their roadmap. Which means schools running older fleets — which is most Australian schools — find their devices performing worse with every release, even when nothing visible has changed.
Every operating system update raises the minimum bar. Every raised bar excludes another tranche of devices. It’s gradual. It’s quiet. It’s relentless. And it’s the single biggest driver of forced hardware replacement in Australian schools today.
The most common pushback I get when I talk about this is: “Sure, that’s the diagnosis. But what’s the realistic alternative?” The honest answer is that there are three, and they’re not mutually exclusive.
First, extend the life of existing hardware by running lighter software on it. This is what governments in Argentina (Conectar Igualdad, Huayra GNU/Linux), Kerala, India (free and open-source software mandated across all government schools, 35 million people), Extremadura, Spain (70,000 secondary school PCs migrated from Windows to Linux, with audited annual savings of around €30 million), North Macedonia (Ubuntu-based desktops deployed nationally), Bolzano, Italy (custom FUSS Soledad Linux for the regional school system), and Mexico (Escuelas Linux, in 528 institutions across 114 countries) have already done at scale. This isn’t theoretical. It works. The savings are documented. The student outcomes hold up.
Second, separate the lifecycle of “the device” from the lifecycle of “the operating system.” A laptop is not the same thing as Windows. A laptop is not the same thing as macOS. A laptop is a piece of hardware that can run many different operating systems, including modern, secure, and well-supported Linux distributions built specifically for education. When the OS lifecycle ends, you change the OS. You don’t have to change the hardware.
Third, build procurement plans around longevity from the start. Buy hardware that can be repaired, upgraded, and reflashed. Buy software that doesn’t force you onto a treadmill. Plan device life around classroom utility, not vendor end-of-support dates.
BURST.PLUS™ is our school operating system — a low-cost, modern, open-source platform designed to revitalise older school hardware. It’s what lets a school keep a 2019 laptop running like a 2026 laptop, on the same machine, with the same students, doing the same work.
It pairs with Crystal Eye EDU — defence-grade cybersecurity, built for schools, in partnership with Red Piranha — so longer device life doesn’t mean weaker security. See what we build →
Underneath all of this — the carbon, the dollars, the equity gap — there’s a more fundamental question. Who decides when a device in your school is finished?
At the moment, the honest answer is: not you. The decision is made by an operating system vendor in another country, a hardware OEM in another country, and a software supplier in another country. The teacher in the classroom, the IT lead in the office, the principal signing the procurement order — none of them are setting the lifecycle. They’re inheriting it.
That’s a strange position for a school to be in. And it’s a position that’s costing Australian education real money, real carbon, and real equity. The student in a low-budget regional school doesn’t have less talent than the student in a well-funded metropolitan one. They have less compatibility. They get bumped off the upgrade cycle earlier. They lose access to the platforms their peers use, not because of anything they did, but because of decisions made far away from them.
The hardware is fine. The software moved. And the question every Australian school can ask, right now, is whether the next refresh has to be a replacement — or whether it could be something else.
If you’re at a school and any of this sounds familiar, I’d genuinely like to hear from you. There’s no sales script on the other end of this email. Just a conversation about what your fleet actually looks like, what’s driving the next refresh decision, and whether there’s a sensible alternative on the table. Email me at it@diged.au.
They begin at recycling.
At disposal.
At carbon offsets.
At ESG reports.
But the real sustainability decision usually happened years earlier, quietly, during procurement, design, software selection, or an upgrade meeting nobody thought twice about.
That’s the conversation I keep coming back to lately.
Not because it’s fashionable. Because I think we’ve accidentally normalised a system where perfectly functional things are constantly thrown away, not because they failed, but because the ecosystem around them stopped supporting them.
And the more industries I look at, the more I realise this isn’t just an IT problem.
It’s everywhere.
We’ve been sold the idea that newer automatically means better.
New platform.
New version.
New model.
New rollout.
New subscription.
New dashboard.
New “ecosystem.”
It sounds like progress.
Sometimes it is.
But underneath that story is a cost almost nobody measures properly.
Every replacement carries embedded carbon from manufacturing, transport, mining, assembly, packaging, logistics, deployment, training, and disposal.
Every upgrade retrains staff.
Every software change reorganises workflows.
Every unsupported platform forces otherwise healthy equipment into landfill long before its engineering life is over.
And the strange thing is, I don’t think this is usually malicious.
Planned obsolescence isn’t always some evil boardroom conspiracy.
Most of the time it’s just short-term rational decisions stacking on top of each other for decades.
A cheaper coating instead of a permanent material treatment.
A sealed component instead of a serviceable one.
Software licensing replacing ownership.
Support cycles becoming shorter than hardware life.
Subscriptions replacing tools that once worked independently.
Every individual decision makes sense in isolation.
The aggregate effect is enormous.
Here’s the question I think more organisations should ask:
“If we had to keep this system operational for ten years with no replacements, how differently would we design it?”
That one question changes everything.
Because suddenly you stop thinking about quarterly upgrade cycles and start thinking about survivability.
You notice which components were always designed to fail.
You notice the consumables disguised as infrastructure.
You notice the vendor lock-in hidden behind words like “lifecycle management.”
You notice how many systems you don’t truly own anymore.
And once you see it, you can’t unsee it.
The four costs always appear eventually:
• Upgrade cycles
• Parts replacement
• Subscription creep
• Vendor-controlled support timelines
What fascinates me most is the hidden human cost underneath all this.
When businesses replace systems, they talk about replacing hardware.
But they’re actually replacing accumulated human understanding.
That’s the expensive part.
Switching a fleet management platform doesn’t just replace software.
It retrains dispatchers, supervisors, maintenance teams, operators, reporting processes, workflows, habits, terminology, and troubleshooting knowledge.
Moving from diesel to electric equipment isn’t just changing drivetrains.
It changes maintenance philosophies, safety systems, charging infrastructure, training pathways, ventilation assumptions, operational behaviour, and incident response models.
Autonomous haulage didn’t just change trucks.
It changed the entire mine around the trucks.
The surrounding human system has to reorganise itself every time technology changes.
And almost nobody costs that properly.
The irony is that many of the “solutions” we were sold have already become the next problem.
Control systems built on Windows XP were replaced.
Then Windows 7 systems were replaced.
Then newer cyber requirements forced another replacement cycle — even when the actual industrial control hardware was still perfectly functional.
The PLCs could survive decades.
The software stack couldn’t.
Same with communications infrastructure.
Leaky feeder.
Then Wi-Fi.
Then LTE.
Then 5G.
Every generation marketed as the final answer.
Every generation obsolete within years.
The original infrastructure often kept working.
It was the upgrade path itself that aged out.
That’s the part I think we need to discuss more honestly.
Because sustainability isn’t just emissions.
It’s durability.
It’s maintainability.
It’s repairability.
It’s interoperability.
It’s whether a thing can survive outside a vendor roadmap.
And this becomes deeply uncomfortable when you look at waste streams honestly.
Australia generates enormous amounts of industrial waste that most people never see.
• Off-road tyres
• Conveyor belts
• Hydraulic hoses
• Industrial electronics
• Control systems
• Sensors
• Battery systems
Most of it is buried, shredded, or discarded long before the value is truly exhausted.
Meanwhile we’re layering newer technologies on top of old waste problems we still haven’t solved.
Electric equipment is important.
But battery recycling infrastructure is still immature.
Autonomous systems are powerful.
But electronic waste recovery pathways are weak.
Smart systems generate incredible operational data.
But most companies don’t even own their own historical data properly because it lives inside proprietary vendor ecosystems.
That one worries me more than people realise.
Many organisations don’t understand they are effectively renting access to their own operational history.
Switch vendors and years of data can become unusable.
That’s not a technology issue.
That’s sovereignty.
And then there’s the skills cliff coming.
The generation who knew how to keep ageing systems alive through ingenuity, fabrication, adaptation, and practical knowledge are retiring.
A lot of younger technicians are exceptionally skilled — but they’ve often grown up inside vendor-supported ecosystems where replacement is assumed before repair.
That changes how industries think.
It changes procurement.
It changes maintenance culture.
It changes engineering philosophy itself.
Which brings me back to something I keep saying lately:
The most sustainable device is often the one already sitting in front of you.
The most reliable carbon saving is usually the replacement that never happened.
Because once embedded emissions exist, they already happened.
The steel was already smelted.
The battery already manufactured.
The transport already completed.
The mining already done.
Keeping a working asset alive longer isn’t just financially sensible.
It’s often environmentally sensible too.
And I think we’re heading toward a cultural split.
One side will continue living inside permanent upgrade cycles because that’s what modern business defaults to.
The other side will begin asking harder questions:
Can this be repaired?
Can this be remanufactured?
Can this operate independently?
Can this survive without constant replacement?
Can we design around longevity instead of churn?
Those organisations are going to think very differently.
And honestly, they’re the ones I’m most interested in watching.
Because designing for longevity changes everything.
Who you buy from.
How you train.
What you measure.
What you value.
Even how you define progress.
A practical case study in extending the life of critical software on existing hardware without costly redevelopment.
Some software just works. It was built carefully, maintained well, and over the years it became so embedded in how an organisation operates that the idea of replacing it stopped being a technology decision and became something closer to an institutional risk.
That’s exactly the situation we found ourselves in when a school came to us with a problem. They were running a specialised industry program — custom built, two decades old, deeply integrated into their curriculum — on ageing Windows 10 machines. Microsoft’s end of support deadline was approaching. The software vendor no longer existed. There was no upgrade path, no modern equivalent, and no budget for a redevelopment that would cost tens of thousands of dollars and take months to deliver.
The school’s IT advisor had told them their only option was to replace the program entirely. We disagreed.
The problem with “just replace it”
When legacy software reaches the end of its supported life, the default advice from the technology industry is almost always the same: start again. Buy a new system. Migrate your data. Retrain your staff. Accept that the institutional knowledge baked into your existing software will be lost in translation.
For large organisations with deep pockets, that advice is inconvenient. For a school running on a tight budget, it’s devastating. The cost isn’t just financial. It’s the curriculum time lost to retraining, the disruption to students mid-program, and the very real possibility that a replacement system never quite does what the original did.
We started from a different premise. The software works. The hardware works. The only thing that doesn’t work is the operating system it’s running on. So let’s fix that.
What we actually did
We installed Ubuntu — a free, open-source Linux operating system — on the existing hardware. Ubuntu is stable, secure, and actively maintained. It runs efficiently on older machines and doesn’t require the hardware specifications that Windows 11 demands.
The legacy program itself was run inside a Windows virtual machine using VirtualBox, also free and open-source. The virtual machine sits inside Ubuntu, completely isolated from the host operating system, and runs exactly as it always has. From the user’s perspective, nothing changed. The program opens, performs exactly as it always did, and saves data in exactly the same format it always has.
The entire migration took less than a day per machine. The school’s staff needed no retraining. The students noticed nothing different. The program that was supposedly at the end of its life is now running on a platform that will continue to receive security updates and support for years to come.
What this actually cost
The software components — Ubuntu, VirtualBox — cost nothing. The hardware was already in place. The time investment was ours, and it was measured in hours rather than months.
Compare that to the alternative: a full redevelopment of a specialised curriculum program, new licensing costs, staff retraining, student disruption, and the inevitable six-month period where the new system doesn’t quite do what the old one did.
The total saving was significant. More importantly, the school kept something irreplaceable — a program that had been refined and improved over twenty years to fit their specific needs perfectly.
The broader lesson
This case study is not unusual. Across Australia, schools and organisations are sitting on perfectly functional software and hardware that they’ve been told is obsolete. In most cases, the obsolescence is not technical. It’s commercial. The vendor moved on. The operating system changed. The support contract expired.
None of that means the software stopped working.
Before you replace something that works, it’s worth asking whether the problem is actually the software — or whether it’s the environment the software is running in. In our experience, it’s almost always the latter. And in most cases, that’s a much cheaper and faster problem to solve than anyone is telling you.
The most sustainable technology decision is the one that keeps working technology in productive use. Sometimes that takes creativity. Sometimes it takes a willingness to look past the default advice. And sometimes it just takes Ubuntu.
Connectivity is only part of the story. What happens when the device itself is the barrier to learning?
Digital Equity Isn’t Just About Internet — It’s About Access
For the past decade, the conversation about digital equity in education has been almost entirely focused on connectivity. Get every student online. Close the broadband gap. Fund the infrastructure. It’s an important conversation, but it’s only half the story.
Because here’s what happens when you give a student internet access on a device that can barely run a browser: nothing changes.
A laptop with four gigabytes of RAM struggling to load a Google Doc, a machine that takes eight minutes to boot, a device so old it can’t run the applications the school has licensed — these aren’t edge cases. They’re the daily reality for students in under-resourced schools across Australia. And no amount of bandwidth fixes that.
The device is the barrier
Digital equity isn’t a single problem. It’s a stack of problems, and connectivity sits at the top of a very long list. Underneath it you’ll find device quality, device availability, software licensing costs, IT support capacity, and the simple question of whether the hardware a student is using is actually capable of the tasks being asked of it.
When we talk about closing the digital divide, we tend to measure success by whether a student has internet access at home or at school. We rarely ask whether the device they’re using is fast enough to participate in a live video lesson, capable of running the STEM software their teacher just assigned, or reliable enough to submit an assignment before it crashes.
For students in well-funded schools, these questions don’t arise. Their devices are replaced on a regular cycle, maintained by dedicated IT staff, and specced to handle whatever the curriculum demands. For students in schools that can’t compete on procurement, the gap isn’t just about access. It’s about capability.
The hidden inequality in the upgrade cycle
The forced hardware upgrade cycle that accompanies every major operating system change hits under-resourced schools hardest. When Microsoft ends support for an operating system, well-funded schools buy new devices. Schools that can’t afford to do that are left managing a fleet of increasingly unsupported hardware, running software that is no longer receiving security patches, on devices that are slowly falling behind the demands of modern education technology.
This isn’t a technology problem. It’s an equity problem that technology is making worse.
Rethinking what access actually means
Real digital equity means every student has a device that is capable, maintained, and fit for purpose — regardless of what postcode their school is in or how large their IT budget is.
That doesn’t have to mean every school buys new hardware every three years. It means being smarter about the hardware we already have. Linux-based systems can extend the productive life of existing devices significantly, running faster and more securely on older hardware than proprietary operating systems. Open-source software eliminates licensing costs that eat into already stretched budgets. Refurbished and repurposed devices, properly configured and supported, can give students in under-resourced schools access to capable technology at a fraction of the cost of new hardware.
We built a fully functioning classroom of 20 laptops for $2,000. Every device was considered obsolete by its previous owner. Every one of them is now giving a student access to technology that actually works.
Connectivity matters. But a fast internet connection on a broken device is still a broken education. Real access means the whole stack works — and right now, for too many students, it doesn’t.
The case for rethinking device lifecycle management when software — not hardware — drives the upgrade cycle.
In October 2025, Microsoft officially ended support for Windows 10. No more security updates. No more bug fixes. And for thousands of schools across Australia, a very uncomfortable question: what now?
For most schools, the answer from their IT vendor was simple. Upgrade to Windows 11. Buy new devices. The problem is that most school laptops don’t meet Windows 11’s hardware requirements — particularly the TPM 2.0 chip requirement that Microsoft introduced as a non-negotiable threshold. Devices that were purchased three or four years ago, devices that work perfectly well, suddenly became a liability.
But here’s what nobody is telling schools: the laptop didn’t fail. Microsoft moved the goalposts.
The real cost of the upgrade cycle
A new laptop costs somewhere between $800 and $1,500 depending on specs and procurement arrangements. Multiply that by the number of devices in a school, and you’re looking at a capital expense that most schools — particularly those in regional or lower-income communities — simply cannot absorb.
And that’s before you consider the environmental cost. Roughly 80% of a laptop’s lifetime carbon footprint is generated during manufacturing, before it ever reaches a classroom. When we discard a working device, we don’t just lose the hardware. We write off an enormous environmental investment and immediately trigger the creation of another one.
Australia already ranks fifth globally in e-waste per capita. The end of Windows 10 is about to make that significantly worse.
Planned obsolescence in plain sight
There’s a term for what’s happening here: planned obsolescence. It’s the point at which a product is deemed no longer viable — not because it has physically worn out, but because the ecosystem around it has been deliberately engineered to leave it behind.
In the consumer market, we accept this as an irritating fact of life. In education, where budgets are tight, equity is already fragile, and devices are supposed to last, it’s a serious policy problem.
The question schools should be asking isn’t “how do we afford new devices?” It’s “why are we being forced to replace hardware that still works?”
There is another way
Windows 10 reaching end of life doesn’t mean the devices running it have reached end of life. Linux-based operating systems can run on the same hardware, often faster and more securely than Windows ever did, with no licensing costs and no arbitrary hardware requirements.
Schools that have made the transition report lower IT overhead, fewer security incidents, and devices that continue to perform for years beyond what Microsoft’s upgrade cycle would have allowed.
The most sustainable piece of technology is the one you already have. The end of Windows 10 isn’t a hardware crisis. It’s an opportunity to rethink who gets to decide when your technology is obsolete — and whether you’re going to let them.
Step 1: Prepare Your USB Drive
Ensure your USB thumb drive is prepared with the correct bootable software or operating system (e.g., installation media, recovery tools).
Step 2: Insert the USB Drive
Plug the USB thumb drive into your computer while the computer is turned off.
Step 3: Power On Your Computer and Open Boot Menu
F12F9 or EscF12 or Novo buttonF12Esc or F8F12Volume Down button while pressing power button.Step 4: Select the USB Drive to Boot From
Once the boot menu appears, use your arrow keys to highlight your USB device (it might appear as USB, the USB brand, or the name of your software), then press Enter.
Step 5: Wait for Your USB Drive to Boot
Your computer will now boot from the USB drive. Follow any on-screen instructions if applicable.
F2, Del, or Esc immediately after powering on).F10) and exit.This process will allow your computer to boot from your USB thumb drive easily.
No, CReSED does not require traditional antivirus software—and that’s one of its biggest advantages.
CReSED is built on Linux, a secure Linux-based operating system that is fundamentally different from Windows in how it handles threats. Linux core systems like CReSED are inherently more secure, not because they’re immune to viruses, but because they are designed with a more robust permission structure, faster patch management, and a lower target profile for malware authors.
Here’s why antivirus software isn’t necessary with CReSED:
Linux has a strict user permission model. This means that, unlike Windows, most malware can’t execute or spread without administrator (root) access. Users can’t accidentally install malicious software without explicitly granting permission—and even then, the system warns them at every step.
CReSED is built on Linux, which includes 10 years of continuous security patching for over 25,000 open-source packages. This means your operating system and software stay up to date automatically—without the lag time seen in many commercial systems.
Windows dominates the desktop market and is often the primary target for malware creators. Linux, while dominant in the server and scientific space, isn’t typically the focus of large-scale virus campaigns. Schools using CReSED benefit from this lower threat exposure while still enjoying enterprise-grade performance.
CReSED does not come with pre-installed advertising software, questionable browser extensions, or third-party trial apps that often serve as malware gateways. Everything is clean, open-source, and fully transparent.
For schools that want additional peace of mind, we can integrate ClamAV (a free, open-source antivirus scanner for Linux) or install Guardian360, our premium Red Piranha-powered security suite designed for educational environments. But for most setups, especially those running local applications and offline education tools, no antivirus is needed.
Bottom line:
CReSED doesn’t just run fast—it runs secure. It’s designed for environments where IT staff are often stretched thin, and where student safety, data protection, and system stability are critical. No expensive antivirus licenses. No annoying pop-ups. Just a clean, hardened education platform you can trust.
Yes. CReSED is not just STEM-ready—it is purpose-built to empower science, technology, engineering, and mathematics education in schools that need reliable, affordable, and accessible solutions. Whether you’re teaching basic coding or advanced scientific simulations, CReSED provides the tools, platforms, and stability required to support a world-class STEM curriculum.
In today’s fast-changing education environment, schools are expected to deliver complex STEM learning without always having the infrastructure or funding to match. That’s where CReSED stands apart. Built on the Ubuntu Pro platform, CReSED delivers an open-source, cost-effective operating system that supports a wide array of STEM software applications—all while running smoothly on older or refurbished hardware.
CReSED integrates a powerful selection of pre-installed STEM applications and programming environments. These include:
All of these programs run without requiring high-end graphics cards or new processors, making them ideal for rural, underfunded, or developing school environments. They are updated and maintained through Ubuntu’s trusted package ecosystem, giving schools long-term stability with minimal maintenance.
CReSED is compatible with the Australian Curriculum (and most international equivalents) in Digital Technologies, Science, and Mathematics. With a wide range of pre-installed tools, teachers can:
Teachers can also access custom dashboards and guides built into CReSED to help them get started with lesson plans, curriculum alignment, and software tutorials—even if they aren’t tech experts.
One of the greatest barriers to STEM participation is accessibility. CReSED overcomes this by offering:
With CReSED, STEM learning is no longer limited to elite institutions or high-income districts. Every school, regardless of budget or location, can give students real access to future-ready skills.
CReSED encourages project-based learning and real-world problem solving. Students can build and program robots using Arduino or Raspberry Pi. They can analyse climate data with Python. They can even design and 3D print prototypes for engineering classes.
More importantly, everything students learn in CReSED is relevant beyond the classroom. Python, Linux, HTML, and data science are real-world job skills used by professionals worldwide. CReSED bridges the gap between education and employment.
And for schools who want to push the envelope, CReSED can be extended to include:
CReSED is scalable, meaning it can be deployed in a single-classroom pilot or across an entire school network. System administrators can centrally manage users, software updates, permissions, and backup settings via the built-in admin portal. Need to deploy 50 devices? 500? No problem.
We also offer training materials for educators, support documentation for IT staff, and can even customise a deployment to match your unique curriculum or STEM focus area.
Schools shouldn’t have to choose between powerful learning and affordable tools. With CReSED, you don’t need a $2,000 device to run a robotics lab. You can do it with a recycled laptop, free open-source software, and some imagination. All while keeping full control of your data, privacy, and system integrity.
Every part of the CReSED platform is built with sustainability in mind—financially, environmentally, and educationally.
STEM education is no longer optional—it’s essential. But too often, access depends on postcode or privilege. CReSED changes that.
If you’re a teacher, principal, or IT manager looking to give your students a head start in science, technology, engineering, or mathematics, CReSED is your all-in-one solution. It works on the hardware you already have, meets international standards, and opens doors to real-world careers.
Don’t wait for the next funding round. Start your STEM journey today—with tools that empower, not exclude. CReSED is ready when you are.
CReSED will not only remain relevant—it will become even more essential.
Unlike Windows, which often forces users to upgrade their hardware just to stay supported, CReSED is built to extend the life of your existing computers—not replace them. In fact, many schools and organisations are already finding that their current devices won’t be compatible with Windows 12 due to increased hardware requirements like TPM 2.0, secure boot, or advanced chipsets. Before you invest in upgrades, ask yourself: Will your current machines even run Windows 12?
That’s where CReSED stands out.
CReSED runs smoothly on older hardware—even laptops and desktops that are 5, 10, or sometimes 15 years old. It’s based on Ubuntu Pro, which receives up to 10 years of security updates, keeping your systems protected without constantly chasing the latest tech or software licenses.
Schools shouldn’t have to replace an entire fleet of computers just to keep getting updates. CReSED lets you skip the expensive upgrade cycle, while still getting access to modern tools like office software, cloud integration, secure user logins, multimedia creation tools, and STEM programs.
When Windows 12 arrives, it’s likely to come with the usual headaches: costly licensing, high system requirements, and complex rollout processes. CReSED offers a future-proof alternative—stable, secure, supported, and ready to keep your school moving forward without breaking the budget.
Yes, absolutely. CReSED is designed with international cybersecurity standards in mind, ensuring that your school’s data and systems are protected at a level trusted by governments, financial institutions, and top-tier enterprises.
At the core of CReSED is Linux, a secure, enterprise-grade operating system that includes:
We also follow security principles that align with ISO/IEC 27001, the global gold standard for information security management systems (ISMS). This includes risk assessment, access control, incident response planning, and continuous monitoring—everything needed to meet and exceed the requirements of schools, not-for-profits, and government departments.
Additionally, CReSED incorporates tools and design practices compatible with the NIST Cybersecurity Framework, widely adopted internationally. This framework ensures your systems are prepared to identify, protect, detect, respond, and recover from cybersecurity incidents—key elements in modern digital safety.
If you integrate with third-party services like Google Drive or Microsoft OneDrive, it’s worth noting that while they meet high security standards, they often store data across multiple global locations. For schools concerned about data sovereignty, we strongly recommend keeping your data stored locally on secure, in-school servers. This reduces legal risk and keeps you fully compliant with Australian privacy regulations.
CReSED was built for the real world—where school budgets are tight, threats are real, and IT staff are often stretched. That’s why we’ve created a system that is secure by design, scalable for growth, and aligned with global best practices in education technology.