THE CASE FOR A NEW MATERIALS AND RESOURCES SYSTEM

From extraction, exploitation and dispossession to regeneration, shared prosperity and community ownership

What if we redesigned the way humanity obtains, produces, uses, shares and recovers the materials that make modern civilization possible?
What if we stopped treating the Earth as an unlimited warehouse of resources and communities as expendable sources of cheap labor?
What if the minerals, metals, forests, water, land and materials on which we depend could generate lasting prosperity without sacrificing human rights or destroying the natural systems that sustain life?
And what if communities could participate in the ownership, governance and economic benefits of the resources on which their lives depend?

We submit that the solution is not simply to extract more efficiently, recycle more products or substitute one material for another.

It is to fundamentally redesign our relationship with materials, resources, ownership and the living planet.

The future of materials is not simply about what we take from the Earth.

It is about what we preserve, what we restore, what we share and what we leave for future generations.

Reality Check

Look around.

The building where you are in now, the furniture, the computers, the electrical wiring, the clothes we wear, the transportation that brought us here and the devices through which we communicate all depend on materials extracted or harvested from the Earth.

Modern civilization could not exist without them.

Metals make electricity networks possible. Minerals support batteries and electronics. Wood and other materials provide housing. Agricultural resources support food production and manufacturing.

We need materials.
We need the people who produce them.
We need engineering, manufacturing, construction, mining, forestry and reliable supply chains.

But there is a fundamental contradiction in how we organize these activities.

A region can possess enormous mineral wealth while its residents remain impoverished.
A forest can generate commercial revenue while the communities who depend upon it lose access to their land.
A valuable product can require years of resource extraction and manufacturing, only to become waste after a relatively short period of use.
And a company can report economic success while the costs of pollution, ecosystem degradation and unsafe working conditions are borne by others.

This is not simply a waste-management problem.

It is a problem of design, incentives, power, rights and ownership.

For centuries, colonial expansion involved the appropriation of land, forced or coerced labor, and the transfer of resources and wealth from colonized societies. Independence did not automatically eliminate all the economic dependencies and inequalities that followed.

Today’s supply chains are more diverse, and many extractive industries operate lawfully and provide important employment and public revenue. Nevertheless, exploitative labor conditions, contested land rights, environmental damage and unequal distributions of benefits remain documented concerns.

An economy cannot be considered successful solely because it creates valuable products if it simultaneously destroys the ecological and social foundations on which their production depends.

We need to transform our systems of production. The good thing is—-around the world, people are already doing this.

One designed to deliver human well-being while using fewer virgin resources where feasible, extending product lifetimes, protecting workers and communities, restoring ecosystems, and distributing economic opportunity more fairly.

Not less civilization.

A better-designed civilization.

Where are we now?

The evidence reveals an economy consuming natural resources at an extraordinary rate while recovering only a fraction of the value embedded in discarded products.

Four facts that establish the scale of the problem

106B

Tons of natural resources extracted globally in 2020.

UNEP, Global Resources Outlook 2024.

3×

Approximate increase in global resource extraction over five decades.

UNEP, 2024.

62M

Tons of electronic waste generated worldwide in 2022.

ITU and UNITAR, Global E-waste Monitor 2024.

22.3%

Of that electronic waste documented as formally collected and recycled.

ITU and UNITAR, 2024.

The United Nations Environment Programme also finds that resource extraction and processing account for more than 60% of global greenhouse gas emissions and approximately 40% of health-related impacts from air pollution. These figures cover resources broadly, including biomass and fossil fuels, not manufactured materials alone.

This is not evidence that all extraction can cease. Growing populations, essential infrastructure and development needs will continue to require materials.
It is evidence that the scale and consequences of resource use demand fundamental changes.

Where does the system break down?

There are seven structural weaknesses:

Excessive virgin resource dependence: Economic activity frequently relies on extracting new materials rather than preserving the value of those already in circulation.
Short product lifetimes: Some products are difficult to repair, upgrade, disassemble or reuse.
Externalized costs: Environmental damage and health consequences may be borne by communities rather than included in production costs.
Unequal benefits: Communities supplying natural resources may receive a limited share of the economic value created elsewhere.
Fragmented supply chains: Designers, manufacturers, consumers, repairers and recyclers operate without adequate coordination.
Loss of valuable resources: Useful materials are discarded, contaminated or mixed together in ways that make recovery difficult.
Insufficient community participation: People affected by extraction and industrial development may lack meaningful influence over decisions.

The consequence is a system that can generate impressive economic output while also producing unnecessary material loss, environmental damage and social inequality.

The fundamental question: Why do we continue designing products and economic relationships that turn valuable resources into liabilities?

Exhibit B: How did we get here?

The present materials economy emerged through several overlapping developments.

Colonial extraction

European colonial powers and other expansionist empires acquired territory, appropriated resources and established trading systems designed to transfer wealth toward imperial centers.

The historical experiences varied, but coercive labor, land dispossession and unequal political power were recurring features of many colonial economies.

Some contemporary supply chains retain geographic patterns in which raw materials are exported for processing and higher-value manufacturing elsewhere.

This does not mean every modern trade relationship is colonial or exploitative. It means historical power relationships and present-day ownership, contracts and value distribution deserve examination.

Industrial production

Mechanization, fossil energy and large-scale manufacturing made products cheaper and more widely available.

These developments also encouraged production systems built around rising resource consumption and expanding markets.

The linear economy

The dominant pattern became familiar:

The conventional materials pathway

EXTRACT
PROCESS
MANUFACTURE
SELL
USE
DISCARD

A simplified representation of the linear economy. Some materials already enter reuse and recycling systems, but many valuable resources are still lost.

Globalized supply chains

International trade enabled specialization, expanded consumer choice and supported economic development.

But long, complex supply chains can make it difficult to trace labor conditions, pollution, ownership and resource origins.

The disposable marketplace

Short replacement cycles and products that are difficult to repair can create recurring sales while increasing material demand.

However, not all product replacement is planned obsolescence. Safety, technological advances, repair costs and changing needs also influence decisions.

The underlying issue is whether products are designed and marketed to retain value for as long as practical.

The ownership question

Resource rights, productive infrastructure, intellectual property and access to financing shape who captures economic value.

A community might supply timber, minerals or agricultural raw materials while having limited ownership of processing facilities or finished-product businesses.

Ownership alone does not guarantee fairness. But ownership and meaningful governance can give communities greater influence over economic benefits and long-term resource management.

The challenge is to replace extractive relationships with arrangements based on rights, transparency, cooperation and shared prosperity.

What does a new materials system look like?

The proposed solution is a circular, regenerative and rights-respecting materials economy.

The Ellen MacArthur Foundation defines a circular economy around three design principles: eliminating waste and pollution, circulating products and materials, and regenerating nature. Its 2026 work also emphasizes regenerative sourcing and retaining the value of biological materials.

Let’s connect that framework with community ownership, labor protections and open collaboration.

The eight pillars of materials transformation

1. PREVENT UNNECESSARY EXTRACTION

Meet essential needs using fewer virgin resources where technically and economically feasible. Improve efficiency, avoid unnecessary production and share underused assets.

2. DESIGN FOR LONG LIFE

Create durable, modular products that can be maintained, repaired, upgraded and disassembled safely.

3. KEEP MATERIALS IN USE

Prioritize appropriate maintenance, reuse, repair, refurbishment and remanufacturing before recycling.

4. RECOVER VALUABLE RESOURCES

Build safe systems for collecting, sorting and recycling materials that cannot remain in use as products or components.

5. RESTORE NATURAL SYSTEMS

Reduce pollution, rehabilitate damaged land, restore ecosystems and manage renewable biological resources within their regenerative capacity.

6. EXPAND COMMUNITY OWNERSHIP

Enable cooperatives, Indigenous enterprises, shared manufacturing facilities and community investment where appropriate and freely chosen.

7. COLLABORATE OPENLY

Share compatible technical standards, repair information, research and practical methods while protecting safety, privacy and legitimate rights.

8. MEASURE REAL RESULTS

Evaluate resource consumption, worker conditions, health impacts, ecosystem recovery, affordability and the distribution of economic benefits.

The objective is not recycling for its own sake.

It is preserving useful value, avoiding unnecessary harm and meeting human needs efficiently.
A building that lasts longer may deliver greater benefits than one repeatedly demolished and reconstructed using recycled materials.
A repaired computer can retain more of its manufacturing value than one prematurely broken down for raw materials.
And an ecosystem left intact can provide benefits that no manufactured substitute can fully reproduce.
The first rule of a better materials system: Preserve what works before consuming more to replace it.

Living examples of a better system

Ladies and gentlemen, we now enter evidence that these are not merely attractive ideas.

Different communities and organizations are already demonstrating parts of the transformation.

Nepal — communities managing their own forests

Community resource governance

The problem: Forest degradation and inadequate local participation in resource management.

The response: Nepal developed a system in which community forest user groups receive legally recognized management responsibilities and use rights over designated forests.

The evidence: A Food and Agriculture Organization case study reported that, by April 2009, approximately one-third of Nepal’s population participated in community forestry and communities directly managed more than one-quarter of its forest area. The program contributed to forest management and livelihood opportunities.

A policy innovation for local livelihoods

The limitation: Benefits have not always reached poorer households, women and marginalized groups equitably.

The lesson: Communities can manage natural resources effectively when they possess meaningful rights, institutional support and accountable governance.

The model requires protection against local elite capture as well as external exploitation.

The Netherlands — products designed to be repaired

Circular product design

The problem: Electronic devices contain valuable materials but are often difficult or uneconomical to repair.

The response: Fairphone designs modular smartphones with replaceable components and repair support.

The evidence: The Fairphone 5 was designed so components such as its display, cameras and charging port can be replaced using a common screwdriver. Although production of that model ended in January 2026, the company says parts and software support will continue until at least 2031.

The limitation: Repairability alone does not eliminate mining impacts, guarantee affordability or ensure every consumer keeps a device longer.

The lesson: Waste is influenced by decisions made before a product is manufactured.

Products can be designed to make maintenance and repair practical rather than unnecessarily difficult.

The European Union — changing the rules of repair

Policy and market design

The problem: Consumers can face obstacles to repairing products rather than replacing them.

The response: The European Union adopted its Directive on the Repair of Goods in June 2024.

The evidence: EU member states were required to transpose and apply the directive from July 31, 2026. The framework aims to make repair easier and complements product-design requirements concerning repairability and spare parts.

The limitation: Actual outcomes depend on national implementation, manufacturer compliance, repair costs and consumer participation.

The lesson: Product design, consumer rights, spare-parts access and business incentives must be addressed together.

Repair cannot become widespread if the legal and economic system consistently makes replacement easier.

International collaboration — redesigning materials at scale

Systems collaboration

The problem: Individual companies cannot redesign entire materials supply chains alone.

The response: The Ellen MacArthur Foundation works across business and policy to accelerate circular economy approaches.

The evidence: Its work on critical minerals examines how reuse, repair, refurbishment and recycling can reduce dependence on virgin extraction. It also acknowledges that responsible new mining will remain necessary in the near term.

The limitation: Collaborative frameworks require measurable implementation. Announcements and corporate commitments are not themselves proof of reduced extraction.

The lesson: Cross-industry cooperation can establish shared methods, but claimed benefits must be tested against actual resource use and environmental outcomes.

What have these living examples revealed?

Community resource management is possible.
Products can be designed for repair.
Governments can change the rules that shape business behavior.
Organizations can coordinate across entire supply chains.
But no single example proves that a fully regenerative global materials economy has been achieved.
The evidence supports a more practical conclusion:

We possess functioning components. The opportunity is to connect them, correct their weaknesses and make them available to more communities.

From ownership to shared prosperity

Ladies and gentlemen, consider the ownership question.

A community may live beside a valuable resource yet possess little authority over how it is developed or how its benefits are distributed.
That arrangement is not inevitable.
Different forms of ownership and governance can be developed according to local rights, laws, capabilities and community preferences.

Five pathways to greater community control

COMMUNITY COOPERATIVES

Workers or residents collectively own and govern productive enterprises.

INDIGENOUS RESOURCE GOVERNANCE

Recognize applicable land and resource rights and Indigenous peoples’ authority over their territories and development priorities.

COMMUNITY LAND TRUSTS

Hold land through a mission-driven structure that can protect long-term affordability and community benefits.

SHARED PRODUCTION INFRASTRUCTURE

Co-own appropriate workshops, processing equipment, fabrication facilities and resource-recovery systems.

COMMUNITY BENEFIT AGREEMENTS

Establish enforceable commitments concerning employment, environmental protections, revenue sharing and local investment.
Community ownership is not automatically more equitable.
Governance must protect minority interests, ensure transparent finances and prevent the concentration of authority among a small group of local insiders.
Indigenous sovereignty must also not be reduced to a generic community-benefits arrangement. Applicable land rights and requirements concerning free, prior and informed consent must be respected.
The objective is not to prescribe one ownership structure for every location.
It is to ensure that affected people have meaningful rights, influence and opportunities to benefit.

Natural wealth should not require the sacrifice of the communities living closest to it.

Open collaboration — can we create a materials commons?

Imagine what component or production method happen if communities did not have to reinvent every tool, independently.
A successful repair workshop in one city develops a practical operating guide.
An engineering team creates a reusable building component.
A community cooperative develops a safe method for recovering valuable materials.
A university publishes validated research.
A manufacturer makes compatible replacement parts available.
Another community adapts that knowledge to its own circumstances.
This is the opportunity of open collaboration.

Not every design or process can safely or legally be made open source. Certain technologies involve proprietary rights, hazardous operations or safety-critical standards.

But many valuable forms of knowledge can be shared.

The proposed materials commons

Open technical specifications and interoperable components.
Freely licensed repair manuals where rights permit.
Shared inventories of reusable materials.
Accessible research and verified implementation guides.
Cooperative purchasing and processing agreements.
Training resources for local repair and manufacturing businesses.
Transparent environmental and labor performance data.

The aim is to reduce unnecessary duplication and dependence while expanding the capacity of communities to solve problems.

Share the knowledge wherever possible. Protect legitimate rights. Verify safety. Distribute the benefits.

A materials commons would not eliminate the need for skilled professionals, businesses or intellectual property.

It would create shared infrastructure that enables more people to participate in useful production, repair and restoration.

How do we restore health for people and planet?

The most important question is not simply how to reduce waste.
It is how to prevent harm and repair damage already done.

Consider the relationships.

The connections: Materials affect every system

HEALTH

Reduce exposure to hazardous substances, unsafe recycling, contaminated water and industrial pollution.

FOOD

Protect soil and water, reduce harmful packaging and recover nutrients safely.

ENERGY

Design batteries, renewable infrastructure and electrical equipment for responsible sourcing, durability and recovery.

HOUSING

Use durable, healthy, repairable and appropriately reused construction materials.

WATER

Prevent mining and manufacturing contamination while improving water efficiency and treatment.

ECONOMY

Create viable employment in repair, remanufacturing, resource recovery and ecosystem restoration.

Consider electronic waste.

The World Health Organization warns that unsafe recycling methods, including open burning and acid leaching, can expose workers and nearby residents to toxic substances. Children and pregnant women face particular risks.

Simply increasing recycling rates would not be enough if recycling itself exposed workers to dangerous conditions.
The proper objective is safe resource recovery, worker protection and reduced hazardous exposure.
Likewise, replacing a fossil-based product with a biological material is not automatically regenerative.
Producing that substitute could require land, water, fertilizer and energy or contribute to habitat loss.
The entire life cycle must be examined.

A truly regenerative system does not merely move environmental damage from one location, industry or population to another.

It reduces the total harm while improving the condition of affected people and ecosystems.

How do we scale what is working?

We must not confuse an impressive pilot with a commercially and socially viable system.

Scaling requires suitable infrastructure, technical knowledge, reliable financing, safe operations and clear ownership.

The Ellen MacArthur Foundation’s research identifies repair, reuse and refurbishment as important strategies for retaining resource value and reducing dependence on new extraction.

The transition can follow seven practical stages.

Identify the local materials challenge. Determine whether the problem involves resource extraction, industrial pollution, construction waste.
Establish what enters the community, what is manufactured, what is reused and what is discarded. Identify valuable resources being lost.
Document existing capabilities .Identify repair businesses, manufacturers, recyclers, cooperatives, researchers, restoration practitioners and available infrastructure.
Create a governance and ownership model. Establish who controls the initiative, how decisions are made, how revenues are distributed and which rights must be protected.
Build the missing connections. Link material suppliers with potential users, repairers with manufacturers, and community enterprises with customers and financing.
Demonstrate and measure. Launch a manageable pilot. Track resource savings, environmental impacts, costs, employment, community benefits and unintended consequences.
Adapt and expand. Publish validated operating methods. Replicate effective components while adjusting to local economics, regulations and resource conditions.

The goal is not to build the largest possible project. It is to create a model that delivers measurable benefits and can be responsibly adopted elsewhere.

A community materials network — what can we build now?

Imagine a city that is demolishing buildings, replacing electronic equipment, struggling with waste-disposal costs and seeking new employment opportunities.
Instead of addressing these matters independently, it could establish a coordinated materials recovery and reuse initiative.

The proposed community materials network

An illustrative model to test locally

1. RESOURCE INVENTORY

Identify reusable building materials, electronics, equipment and manufacturing by-products.

2. COMMUNITY MATERIALS HUB

Create a safe location for receiving, inspecting, sorting and storing appropriate materials.

3. REPAIR AND REUSE NETWORK

Connect qualified repairers, refurbishers, builders and manufacturers.

4. SHARED MARKETPLACE

Help organizations find suitable recovered materials, equipment and components.

5. COMMUNITY ENTERPRISE

Provide opportunities for cooperative businesses and workforce training.

6. INDEPENDENT VERIFICATION

Assess product safety, environmental performance, financial viability and social benefits.
A building demolition could become an opportunity for carefully managed material salvage.
Discarded equipment could become an opportunity for repair and resale.
Manufacturing by-products might become inputs for another qualified producer.
Some opportunities will prove uneconomic or unsafe. They should not be pursued merely to satisfy a circularity target.

The objective is to identify genuine value.

A properly designed network would also ensure that hazardous waste is handled only by qualified operators and that reclaimed construction materials meet applicable safety requirements.
This is how circularity becomes practical infrastructure rather than an abstract sustainability promise.

Human rights must be built into the new system.

A materials economy founded on human rights must ask difficult questions about the entire supply chain.

Who owns the land?
Who controls the resources?
Were affected communities meaningfully consulted?
Are workers safe?
Who receives the economic benefits?
Who bears the environmental costs?
And who is responsible for restoring damaged ecosystems?

Human rights are not fulfilled simply by labeling a product sustainable.

The relevant standards include protections concerning health, work, participation, discrimination, and the rights of Indigenous peoples.

A rights-based materials system should establish:

Respect for applicable land and resource rights.
Meaningful participation by affected communities.
Free, prior and informed consent where required by applicable Indigenous rights standards.
Safe working conditions and freedom from forced labor.
Accessible information about environmental and health risks.
Transparent revenue and benefit-sharing arrangements.
Effective complaint mechanisms and access to remedy.
Independent monitoring of environmental restoration.

The central principle is clear.

The people and places supplying the world’s materials must not be treated as disposable inputs.

How do we protect the new system from becoming the old system?

A circular economy can also become exploitative.
A recycling business might expose workers to hazardous substances.
A community enterprise might be controlled by a small local elite.
A manufacturer might use recycled content as a marketing claim while increasing overall resource consumption.
A new mineral supply chain might reproduce the same unequal relationships as the one it replaces.

That is why the system needs enforceable safeguards.

Independently verified environmental claims.
Labor protections, safety standards and inspections.
Meaningful participation and accessible grievance procedures.
Transparent governance and fair competition.
Qualified operators and hazardous-material controls.
Full life-cycle assessments and material-flow accounting.
Clear contracts and transparent financial reporting.
Funded restoration obligations and long-term monitoring.

The measure of success cannot be the number of products described as circular.

It must be whether the system actually reduces unnecessary extraction, prevents harm, retains useful value and improves human and ecological well-being.

What happens if we do nothing?

If humanity continues increasing resource extraction without sufficiently improving efficiency, circularity and regeneration, environmental and supply-chain pressures could intensify.

UNEP’s 2024 Global Resources Outlook projects that resource extraction could increase by 60% by 2060 relative to 2020 levels without significant changes. This is a scenario projection, not an inevitable outcome.

Summary for Policymakers

The risks include:

Greater pressure on land, water and biodiversity.
Continued pollution and associated health consequences.
Rising vulnerability to material shortages and supply disruptions.
Increased waste-management burdens.
Continued exposure of workers and communities to hazardous conditions.
Lost economic opportunities from materials discarded prematurely.
Persistent inequalities in resource ownership and value distribution.

The danger is not that humanity will run out of every resource tomorrow.

It is that we may continue undermining the environmental and social systems on which our prosperity depends.

The case for resources by design

The current system delivers essential materials and products, but it also creates avoidable waste, environmental harm and unequal economic outcomes.

The historical record demonstrates that control over land, labor and natural resources has often been closely connected to the concentration of wealth and power.
The contemporary evidence shows that resource extraction and processing exert enormous pressure on the planet.

And the living examples demonstrate that alternative arrangements are possible.

Communities can participate in resource governance.
Products can be designed for repair.
Governments can change market incentives.
Industries can collaborate to preserve material value.
And communities can establish enterprises that combine economic opportunity with responsible resource management.

None of this will eliminate the need for mining, manufacturing or international trade.

But it can change how those activities are conducted, who participates and what outcomes they produce.
We do not need to choose between human progress and a healthy planet as though they were inherently incompatible.
We need to define progress in ways that account for both.

The future is ours to shape.

Imagine a world where:

Natural resources are managed responsibly.
Communities have meaningful ownership and decision-making opportunities.
Products are designed to last, be repaired and remain useful.
Valuable materials circulate safely rather than becoming waste.
Workers are protected throughout supply chains.
Damaged ecosystems are restored.
Knowledge and practical solutions are shared.
Economic benefits are distributed more fairly.

We have the engineering knowledge.

We have functioning examples.

We have communities and innovators already demonstrating alternatives.

What we need is to connect them, remove unnecessary barriers, build the infrastructure and verify the results.

MOBILIZED NEWS

Human rights through whole-systems change.
From extraction to regeneration.
From exploitation to dignity.
From dispossession to meaningful community control.
From isolation to open collaboration.
Take less. Use better. Share fairly. Restore more.
Less talking, more doing.

Build a materials commons

The next step is to make the case actionable through an interactive session led by practitioners already doing the work.
Not another panel promoting sustainability commitments.
A working demonstration connecting practical projects with communities that could benefit from them.

The Mobilized Live materials challenge

Bring together:

Community resource cooperatives and Indigenous enterprises.
Circular-product designers and manufacturers.
Repair, refurbishment and remanufacturing businesses.
Responsible mineral recovery and recycling practitioners.
Ecological restoration organizations.
Community land and resource governance specialists.
Open-hardware and collaborative-design initiatives.
Investors and procurement organizations supporting verified projects.

Five questions every presenter must answer:

What specific extraction, waste, ownership or environmental problem are you solving?
What have you built, and where is it operating?
What evidence demonstrates its environmental, social and economic results?
What would another community need to adapt your approach?
What partners, resources, rights or infrastructure are required next?

The deliverable: A community materials and resources action guide.

Through the Mobilized Exchange, connect participants with verified projects, qualified practitioners, reusable material inventories, shared production resources, cooperative models and potential collaborators.

Each project should disclose what it does, where it operates, what evidence supports its claims, what resources it needs and how people can participate.

Follow up after six months to document what has actually changed.

The ultimate question:

What can we begin building together, right where we are, that reduces unnecessary extraction, protects human rights, restores ecosystems and creates lasting community prosperity?

The event introduces the possibilities. The network connects the participants. The Exchange provides the practical connections. The evidence tells us what works.

And the purpose is clear: a materials economy that serves life rather than consuming the foundations on which life depends.