What is a circular economy?

A circular economy is an economic system in which resource input and waste, emission, and energy leakages are minimised by cycling, extending, intensifying, and dematerialising material, water, and energy loops.

This can be achieved through digitalisation, servitisation, sharing solutions, long-lasting product design, maintenance, repair, reuse, remanufacturing, refurbishing, and recycling.

Materials and energy are recycled within the system through:

Reuse

Products at the end of their life and their parts are used again as long as possible (for example, refillable bottles)

Re-manufacturing

The cores of products at the end of their life are processed into new products and parts (for example, remanufacturing truck parts)

Refurbishing

Cleaning, repairing, and updating an end-of-life item (for example, refurbished smart phones)

Recycling

Materials and energy are recovered from end-of-life products (for example, recycled plastic bottles)

The use phase of the product is extended through:

Long-lasting design

Product life is increased through sturdy, timeless and/or upgradable design (for example, handmade shoes)

Marketing

Advertise product as timeless classic and encourage long use (for example, mechanical watches)

Maintenance

Use predictive and reactive maintenance to extend product lifetime (for example, industrial robots)

Repair

Remove failure modes and restore broken products to extend their lifetime (for example, cars)

The use phase of the product is intensified through:

Sharing economy solutions

Increase product utilisation by sharing it among users (for example, car sharing)

Public goods

Avoid private product ownership by public offering (for example, public transport)

Product utility is provided without hardware through substitution with:

Service solutions

Use services instead of owning products (for example, plane turbines)

Software solutions

Use apps and computer programs instead of physical products (for example, news apps)

Efficiency

Increase energy and material efficiency to reduce resource intake (for example, 3D printing)

Renewables

Shift from finite to inherently renewable feedstock and energy inputs (for example, wind energy)