Where do the circular economy principles come from?
The Ellen MacArthur Foundation, established in 2010, is the most influential organisation advancing circular economy thinking globally. Its three core principles provide a practical framework for redesigning economic systems — not just improving them at the margins.
These principles are not abstract ideals. Each one has direct implications for how businesses design products, manage supply chains, handle waste, and report on environmental performance. For the IT sector specifically, they offer a clear blueprint for doing better.
Principle 1: Eliminate waste and pollution
The first principle holds that waste and pollution are not inevitable by-products of economic activity — they are the result of poor design choices.
In a conventional economy, a laptop is designed to be manufactured, sold, used for a few years, and discarded. The materials inside it — aluminium, copper, gold, rare earth elements — are extracted once, used once, and then largely lost. This is waste by design.
The circular alternative starts at the beginning: design products to last longer, be repaired more easily, and be disassembled at end of life so their materials can be recovered efficiently. Modular smartphones, such as those made by Fairphone, are a direct application of this principle. Their components can be replaced individually rather than rendering the entire device obsolete when one part fails.
For businesses disposing of IT equipment, this principle translates into a practical question: are you choosing a disposal route that recovers maximum value, or one that simply removes the inconvenience? Sending devices to a certified ITAD provider — rather than general waste — is the difference between elimination and contribution to the problem.
Principle 2: Circulate products and materials at their highest value
This is the principle that most people associate with the circular economy, and it is the one with the most immediate relevance to IT disposal.
“Highest value” is the key phrase. A working laptop has more value as a laptop than as a collection of metal and plastic. A working hard drive has more value as a storage device than as a source of recovered aluminium. The circular economy prioritises keeping things at their highest level of value for as long as possible.
The Ellen MacArthur Foundation describes two distinct cycles here:
The technical cycle covers products made from non-biological materials — electronics, plastics, metals. In this cycle, the preferred order is:
1. Maintain and extend product life
2. Reuse the whole product
3. Refurbish and redistribute
4. Remanufacture components
5. Recycle materials as a last resort
The biological cycle covers organic materials — food, cotton, wood — that can safely re-enter natural systems through composting or anaerobic digestion.
For IT equipment, the technical cycle is what matters. At Recycle4Charity, we apply this hierarchy directly. Every device collected from a London business is assessed. If it works, or can be made to work, it is refurbished and donated — keeping it circulating as a device rather than reducing it to raw materials. Only when refurbishment is not possible do we move to recycling through certified WEEE partners.
This is also the principle that makes IT reuse a stronger environmental choice than IT recycling. Recycling recovers materials but destroys the embodied value of the device. Reuse preserves it.
Principle 3: Regenerate natural systems
The third principle extends beyond products and materials to consider the broader impact on natural systems.
For biological materials, this means returning nutrients to the soil rather than losing them to landfill or incineration. For the technology sector, the connection is less direct but still meaningful. Every device that is reused rather than discarded reduces demand for new manufacturing. Less manufacturing means less mining, less energy consumption, less habitat disruption, and fewer carbon emissions.
The extraction of materials used in electronics — including cobalt, lithium, tin, and rare earth elements — has significant environmental and human costs. Mines in the Democratic Republic of Congo, Chile, and Indonesia supply materials that end up in devices used globally. Extending device life through reuse and refurbishment directly reduces the pressure on those extraction systems.
Regenerating natural systems also means choosing suppliers and partners who operate responsibly. Certified ITAD providers, like Recycle4Charity, process equipment in controlled environments rather than exporting it to informal recycling markets, where inadequate handling causes serious pollution and harm to workers and communities.
How do these principles apply together?
The three principles work as a system, not a checklist. Eliminating waste requires designing for circulation. Circulating at highest value requires not contaminating or destroying materials unnecessarily. And regenerating natural systems requires both of the first two, applied consistently.
For an IT director or sustainability manager reviewing their organisation’s asset disposal process, the principles translate into practical questions:
- Are we choosing a disposal partner who prioritises reuse before recycling?
- Are we documenting the outcome — devices donated, materials recovered, waste diverted — to support our ESG reporting?
- Are we applying circular thinking at the procurement stage, not just at disposal?
These are not rhetorical questions. Each one has a measurable answer, and increasingly, investors, clients, and regulators want to see that answer.
To understand the social and environmental impact of circular IT practices, explore our impact data. For businesses managing IT asset disposal, our WEEE recycling and ITAD services are built around these three principles from the ground up.
Putting circular economy principles into practice starts with a single decision: what happens to your old IT equipment. Contact our team to find out how we can help.