From linear to lasting: Resource preservation is the fix for sustainable IT

Have you ever considered what is actually inside your laptop? Beyond the sleek casing and the glowing screen lies a complex map of the Earth’s rarest resources. There are gold, silver, copper, and cobalt amongst many others. These are materials that we have spent millions of pounds to pull out of the ground and millions of litres of water to turn into laptop components.

For decades, the IT industry has operated on a “take-make-waste” model. We dig a hole in the Earth, build a machine, use it for three years or so, and then toss it away. This is a linear way of thinking. As we head into 2026, it is becoming clear that this system is fundamentally broken. This is not just a manufacturing story; it is a story about how we steward finite resources, manage risk across global supply chains, and design technology systems that avoid waste by default.

Forward-looking organisations now treat resource preservation as a strategic “fix”. This is a first principle that guides design, procurement, and operations to keep materials in productive use for as long as possible.

The heavy cost of “light” tech

We love our laptops to be thin, but their environmental footprint is incredibly heavy. According to the United Nations Global E-waste Monitor, the world generated a record 62 million tonnes of e-waste in 2022. To put that into perspective, that is enough to fill 1.55 million 40-tonne trucks. That is a line of trucks that would wrap around the entire equator.
Behind those numbers are measurable business risks; volatile material prices, tightening regulation, and rising Scope 3 scrutiny which make “buy new, dispose early” an increasingly fragile strategy.

The UK is one of the world’s biggest contributors to this pile. Research from the DTP Group (2025) shows the UK produces about 24kg of e-waste per person. This is the second-highest rate on the planet. Most of this waste is not actually junk. It is a collection of precious minerals that we are simply throwing back into the dirt.

Resource preservation: Mining the surface

When we speak of resource preservation, we are looking far beyond the traditional concept of recycling. While recycling remains a necessary safety net at the end of a product’s life, it should no longer be our primary focus. We are now in an era that demands we keep the inherent value of materials alive for as long as possible.

The real opportunity sits much higher up the value chain. It begins with designing for longevity, remanufacturing to ensure original quality, and redeploying technology at scale. By prioritising these stages, we ensure that recovery and recycling serve only as a final resort. We must move beyond recycling to a model where we preserve the energy, labour, and complexity already embedded in our devices.

A single laptop is a cocktail of over 240 substances.  A typical professional laptop is a treasure chest of materials:

• Magnesium and Aluminium: These make up the lightweight frame and shell.
• Copper: Essential for the nervous system of wiring and heat sinks.
• Gold and Silver: Used in circuit boards for their incredible conductivity.
• Cobalt and Lithium: The heart of the battery.

The real cost of “new”

When a brand-new laptop is manufactured, it is not just using up minerals. It is also consuming a huge amount of the Earth’s energy. A study by the University of Michigan Center for Sustainable Systems notes that over 75 percent of a laptop’s lifetime carbon emissions happen during the production phase. This means the environmental damage is done before you even press the power button for the first time. For CIOs and procurement leaders, that’s a powerful lever: extend lifecycles and you avoid most of the emissions before they happen.

Choosing a Circular Computing remanufactured laptop changes this equation entirely. By opting for a remanufactured laptop instead of a new one, you prevent approximately 316kg of CO2 emissions. You also save over 190,000 litres of water that would otherwise be swallowed up by the extraction, refining, and production of a new device. Most importantly, each remanufactured laptop prevents the consumption of 1,200kg of the Earth’s precious resources. Instead of digging more out of the ground, we simply make better use of what we already have.  That is resource preservation in action: decarbonise, de‑risk, and deliver performance without fresh extraction.

Resource preservation means stopping this cycle. Instead of mining new cobalt or copper, we look at the millions of “end-of-life” enterprise laptops already sitting in office cupboards. These are not scrap. They are urban mines filled with high-grade components that are ready to be used again.

Solving complex problems with Systems Thinking

To fix our current model, we must adopt Systems Thinking. Most people view a laptop as an isolated object; if it slows down, they simply buy a new one. This is siloed thinking. Systems Thinking looks at the bigger picture, understanding that the laptop on your desk is connected to a global supply chain, a local energy grid, and a future landfill site. When you choose to extend the life of a device, you make a move that ripples through the entire system.

This approach is essential for reducing unintended consequences. Good intentions can backfire without system-level guardrails. For instance, a “buy cheap, replace often” strategy may look cost-effective on paper, but it externalises environmental damage and increases operational risk. Aggressive refresh cycles inflate Scope 3 emissions, while fragmented vendors complicate security assurance. Ad-hoc refurbishment can also harm the user experience and erode trust.

Resource preservation mitigates these unintended consequences by prioritising three key pillars:

• Quality over churn: This results in fewer failures, a longer Mean Time Between Failure (MTBF), and higher user satisfaction.
• Verification over claims: This ensures documented carbon and water savings alongside clear component provenance.
• Circular KPIs over linear metrics: Success is measured by units not purchased, resources not extracted, and emissions avoided.

By choosing this path, you first reduce the need for virgin mining, which protects ecosystems and reduces the risk of resource shortages. Second, you lock in the carbon that was spent years ago. Finally, you move investment away from extraction and toward skilled labour: the people and companies who specialise in dismantling, testing, and rebuilding technology.

The New New®: A better way

This is where the concept of The New New comes in. At Circular Computing, we do not just refurbish laptops. Refurbishing has a huge variance within it and can mean as little as a quick wipe and a prayer in some areas. Instead, we use our own proprietary 360-step innovative, remanufacturing process.

Circular Computing’s Circular Remanufacturing Process ™ involves 360 distinct steps across a meticulous 5+ hour journey per laptop, delivering consistent quality that can rival or exceed new equipment standards.

This comprehensive approach begins with complete disassembly, allowing components to be individually inspected, tested, and remediated. Unlike refurbishment processes that focus primarily on cosmetic improvements, true remanufacturing addresses both visible and internal components with equal rigour.

The cosmetic renewal process involves dismantling laptops into major components that are covers, palm rests, bezels, and keyboards, which are then fully repaired and repainted using state-of-the-art robotics. This precision engineering ensures exact colour and finish matching to original specifications, delivering what industry professionals describe as “like new” cosmetic quality. We preserve the resources, we keep the gold, copper and all the other minerals in the loop instead of in a landfill.

By treating the laptop as a system of reusable parts rather than a disposable gadget, we can keep materials in use for many more years. It is a subtle shift in how we buy IT, but the impact is seismic.

The future is circular

Steve Haskew, Circular Computing Group Director of Sustainability & Growth, notes: “Government has a major part to play in this as it is not only a major consumer of IT, accountable to the public purse, but also leaders in industrial change; strategy and policy will drive this change and we see evidence of this in the Government Buying Standards being published soon, with DEFRA taking the lead, and literally walking the walk.”

No single actor can deliver circular outcomes alone. Partnerships unlock adoption, integration, and policy alignment. Systems integrators such as Atos can embed remanufactured laptops into managed workplace services to align device strategy with cloud and security architectures. Simultaneously, public sector bodies like Defra can set procurement standards that prioritise remanufacturing and verified resource savings.

Furthermore, OEMs, remanufacturers, and recyclers can establish parts-sharing protocols to keep components in high-value loops. This collaboration enhances resilience, reduces the cost of change, and makes circular performance auditable.

The most sustainable laptop option is not the one that was just mined; it is the one that has already been made. By embracing resource preservation and adopting systems thinking, we can protect our planet’s hidden treasures and turn the tide on e-waste. It is time to rethink our relationship with technology, because IT shouldn’t cost the Earth.