Critical minerals · Mine-to-magnet

The Industrial Spine Of The Permanent-Magnet Economy.

An integrated platform securing the rare-earth materials behind electrification, mobility, robotics, aerospace and advanced electronics — from resource through refining, alloying and high-performance NdFeB magnet manufacturing to global OEM supply.

See The Value Chain
MineRefine AlloyMagnetOEM
0
Magnet-critical elements — Nd, Pr, Dy, Tb
0
Production stages, resource through to finished magnet
Limited regions
Separation and magnet-making concentrated today
Decades
Structural demand across mobility, energy and industry
The imperative

Indispensable Materials, Concentrated Supply.

NdFeB permanent magnets are structurally irreplaceable in electric drivetrains, wind turbines, robotics, aerospace and advanced electronics — yet separation and magnet-making remain concentrated within limited regions. Governments and OEMs are moving to diversify, localise and secure resilient supply.

Magnet Rare-Earth Demand

Directional · indexed
100index todaymid-termlong-term
Magnet REE (NdPr, Dy, Tb) Broad industrial baseline

Where The Chain Is Thin

Directional
Midstream THE BOTTLENECK

Mining new resource is not the binding constraint. Separation, metal-making, alloy and sintered-magnet capacity are — and they are the stages the platform is built to hold.

Concentrated today Diversified capacity

*Directional industry context for orientation only — not project data.

The value chain

One Integrated Corridor — Mine To Magnet.

Rather than a mining project, the platform is a unified value chain that captures margin at every stage and aligns secure resource with global manufacturers. Select a stage to open the engineering detail.

Upstream · resource & extraction Midstream · refining & alloy sovereignty Downstream · advanced manufacturing & offtake
Technology

The Chemistry Of High Performance.

Ionic adsorption clay is the low-energy route to the four magnet elements — held as exchangeable cations on clay surfaces and recovered under mild conditions, then engineered into magnet-grade product.

The four magnet elements — select to explore
Magnet performance — relative, illustrative
BHmaxmaximum energy product — how much work per unit volume
HcJintrinsic coercivity — resistance to demagnetising at heat, Dy/Tb driven
Brremanence — flux the magnet retains
Resource type — select to compare
Ionic clay
    Hard rock
      The platform

      An Integration Platform, Not A Single Asset.

      The consortium aligns resource, capital, technology, industrial capacity and offtake into one streamlined structure — each Member contributing a distinct capability, and each taking secure position in the chain.

      FIG.03 · PLATFORM TOPOLOGY Resourceupstream Capitalsovereign Technologyprocess Industrialcapacity Offtakedemand READ CONSORTIUM
      • Secure resourceA low-cost ionic-clay resource base feeding the chain, developed to international standards.
      • Aligned capitalMembers fund the stages they most need to secure, rather than a single balance sheet carrying the whole chain.
      • Process technologySeparation, metal-making and magnet know-how — the capability that is hardest to buy and slowest to build.
      • Industrial capacityRefining and magnet plants sited with partners who want the industry on their own soil.
      • Anchored offtakeLong-term qualified supply to manufacturers who cannot afford a single point of failure.
      Development

      Phased, De-Risked, Capital-Efficient.

      Each phase is designed to prove the next: resource and flowsheet first, midstream sovereignty second, magnet manufacturing and qualified OEM supply third.

      Phase 01

      Resource & Flowsheet

      Definition drilling, metallurgical testwork and pilot ion-exchange circuits to lock the process route and product specification.

      Phase 02

      Midstream Sovereignty

      Separation and metal/alloy capacity established with Members — the stage that converts a resource into strategic leverage.

      Phase 03

      Magnet Manufacturing

      Sintered NdFeB production, OEM qualification and long-term supply agreements into mobility, energy, robotics and advanced industry.

      Confidential

      Begin A Confidential Conversation.

      Detailed technical, commercial and structural information is released to qualified counterparties on receipt of an Expression of Interest and execution of a Non-Disclosure Agreement.

      admin@readconsortium.com

      Enquiries treated in strict confidence · No project, location or counterparty information is published on this site

      Who We Are

      A Consortium To Secure The Mine‑To‑Magnet Value Chain.

      Headquartered in London, the Rare Earths Development Consortium is formed by an international group of industry leaders building an integrated rare earths capability — resource, refining, metal and alloy, and high-performance permanent magnet manufacturing — aligned directly with global manufacturers.

      See The Project
      FIG.A · CONSORTIUM STRUCTURE Resourceupstream Capitalsovereign Technologyprocess Industrycapacity Offtakedemand READ CONSORTIUM MEMBERS CONTRIBUTE A CAPABILITY · AND TAKE A POSITION
      Headquarters
      London, United Kingdom
      Scope
      Resource Through To Finished Magnet
      Our Mission

      To establish a secure, traceable and commercially durable mine‑to‑magnet supply chain outside the currently concentrated midstream — in partnership with the governments and manufacturers who need resilient access to permanent magnet materials.

      Leadership

      The Rare Earths Development Consortium (READ Consortium) is led by an internationally assembled collection of senior mining executives, metallurgists, project developers, commodity specialists, financiers and industrial leaders, established to develop one of the world's next strategically significant rare earth supply platforms. Its leadership includes the former CEO of the London Metal Exchange (LME) and the former Chairman of Indian Rare Earths Limited (IREL), the Government of India's sovereign integrated rare earths company.

      Senior Mining ExecutivesDevelopment and operation of large-scale mining assets
      MetallurgistsSeparation, metal-making and magnet process expertise
      FinanciersProject and sovereign-scale capital structuring
      Commodity SpecialistsOfftake, pricing and long-term supply agreements

      Why READ, And Why Now

      The Case For Building It

      Seven forces have converged to make an integrated, allied mine-to-magnet chain both necessary and economically viable.

      Geopolitical RealignmentAccess to critical materials has become a question of alliance and sovereignty rather than of price alone.
      Supply ConcentrationSeparation, metal-making and magnet capacity sit within a small number of plants in a single region.
      Government StrategyMost major economies now list rare earths as critical minerals and back domestic capability directly.
      Industrial ResilienceManufacturers who cannot tolerate a single point of failure are contracting for provenance, not spot tonnes.
      Critical Minerals DemandElectrification, robotics and advanced industry are lifting magnet demand faster than supply can follow.
      LocalisationPartners increasingly want the industry on their own soil, with the skills and employment that come with it.
      Magnet IndependenceThe finished magnet — not the ore — is the point at which dependence is actually created or removed.

      Why It Exists

      Permanent magnets are where the energy transition, advanced manufacturing and national resilience converge — and where the supply chain is thinnest. Resource is comparatively distributed. Separation, metal-making, alloy and magnet capacity are not. The consortium exists to build that missing middle alongside the partners who need it, rather than to sell raw material into someone else's chain.

      What Makes It Different

      Three things. It is built on a low-capital ionic adsorption clay resource base rather than conventional hard rock. It is integrated by design, so value is captured at every stage rather than surrendered at the mine gate. And it is a platform: Members contribute a distinct capability — capital, technology, industrial capacity or long-term demand — and take a secure position in return.

      How The Consortium Is Being Constituted

      Formation Principles

      Written into the constitution as Members are admitted — not presented as established practice.

      Who Makes Up The Membership

      Types Of Entity, And What Each Brings

      A Member is an organisation admitted to the consortium that contributes a defined capability — resource, capital, technology, industrial capacity or long-term demand — and takes a corresponding position in the chain.

      The categories below describe the types of entity the membership comprises, what each contributes, and what each secures in return.

      Government AgenciesContribute capital, land and permitting pathways, utilities, infrastructure and an industrial site. Secure supply security, domestic industrial capability and skilled employment.
      Universities And ResearchContribute process research, materials science and the skills pipeline the industry lacks. Secure applied programmes, funded facilities and industrial placement for graduates.
      Technology DevelopersContribute separation, metal-making and magnet process technology — the scarcest input of all. Secure industrial-scale deployment of their processes and a share of the chain they enable.
      Engineering And EPCContribute design, build and commissioning of midstream and downstream capacity. Secure a multi-phase programme of work rather than a single contract.
      Financial InstitutionsContribute project finance, guarantees and structured capital across phases. Secure exposure to a critical-minerals chain with contracted demand at the far end.
      Strategic InvestorsContribute capital committed to a position rather than a passive holding. Secure a defined stake in the chain and a voice in how it is built.
      Industrial ManufacturersContribute long-term offtake commitment and product qualification. Secure traceable, resilient supply of finished magnets under contract.

      How We Work

      What To Expect Of Us
      International LeadershipSenior individuals who have built and run assets of this nature before, with a proven track record, across several jurisdictions.
      Long-Term Industrial FocusBuilt for a twenty-year industrial position.
      Governance-Led DecisionsDecisions taken through defined process and recorded, not by informal agreement.
      Responsible SourcingChain-of-custody discipline applied from the resource through to the finished magnet.
      Confidential ProcessEvery counterparty discussion under NDA, and confidential in both directions.
      Selective PartnershipsMembers admitted for the strategic capability they bring, not for the capital alone.
      Independent OversightTechnical and financial review by parties independent of the consortium's leadership and of any Member with an interest in the outcome.

      Information on this page is provided for orientation. Definitive terms, structure and documentation are released to qualified counterparties under a Non-Disclosure Agreement.

      Responsibility

      Responsible By Process, Not By Policy Statement.

      The strongest environmental advantage of this platform lies directly within our chosen process route. Utilizing ionic adsorption clay ensures an inherently clean, efficient, and highly sustainable approach to rare earth production.

      FIG.B · PROCESS FOOTPRINT TOPSOILCLAY · ION-ADSORBED REE SAPROLITEWEATHERED GRANITE ✓ FREE-DIG ✓ AMBIENT CHEMISTRY ✓ CLOSED LOOP SHALLOW REGOLITH · PROGRESSIVE REHABILITATION
      Our Position

      True environmental stewardship is hardcoded into our operations. By harnessing ionic adsorption clay, our extraction method inherently secures a clean, highly efficient, and forward-looking future for rare earth production.

      How This Is Governed

      The consortium operates under formally adopted governance policies.

      This framework strictly adheres to proven international standards rather than internally invented criteria.

      What This Route Avoids

      Four of the heaviest environmental burdens in conventional rare earth production simply do not arise.

      Avoided By This Route
      Blasting And Grinding

      The material is soft and free-dig, so the crushing and milling circuits that dominate hard-rock energy consumption are not needed.

      Avoided By This Route
      High-Temperature Cracking

      Rare earths are recovered by ion exchange under mild conditions — no roasting, no acid bake, none of the associated emissions.

      Avoided By This Route
      Conventional Tailings Dam

      The flowsheet does not depend on the large wet impoundments that represent one of the mining industry's legacy liabilities.

      Avoided By This Route
      Thorium And Radioactivity

      Non-monazite ionic clay does not carry the thorium burden common to hard-rock deposits, removing a whole regime of handling and residue risk.

      Ionic Clay Against Hard Rock

      Directional comparison of the two routes. Hard rock wins on head grade; the clay route wins on almost everything you spend to liberate it.

      Ionic Adsorption Clay
      Conventional Hard Rock
      Energy Intensity
      Low
      High
      Process Temperature
      Ambient
      Cracking / Acid Bake
      Residue Burden
      Low · No Tailings Dam
      High
      Radioactivity
      Negligible
      Thorium Common
      Capital Intensity
      Modular
      Single Large Train
      Head Grade
      Lower
      Higher

      Directional industry context for orientation only — not project data.

      Environmental Responsibility

      Designed In, Not Added After
      Water And LandWater management and progressive rehabilitation of a shallow regolith operation, designed into the flowsheet rather than added afterwards.
      Closed-Loop ReagentsProcess reagent recovered and recycled, reducing both consumption and discharge.
      Carbon IntensityAvoiding blasting, grinding and high-temperature cracking removes the largest energy loads in conventional production.
      CommunitiesEngagement built on informed consent, local employment and long-term presence rather than extraction and exit.
      TraceabilityAn integrated chain allows material to be traced from resource through to finished magnet — now a customer requirement, not a courtesy.
      Residue And RadioactivityNon-monazite clay carries negligible radioactivity, removing an entire category of handling and residue risk.

      Conduct And Compliance

      The Standard We Hold Counterparties To

      Reference Frameworks

      Operational frameworks are built directly upon established international standards rather than internally invented criteria.

      IFCPerformance Standards ICMMMining Principles IRMAResponsible Mining Assurance OECDDue Diligence Guidance
      Contact

      Begin A Confidential Conversation.

      Detailed technical, commercial and structural information is released to qualified counterparties on receipt of an Expression of Interest and execution of a Non-Disclosure Agreement.

      Rare Earths Development Consortium 134 Buckingham Palace Road
      London SW1W 9SA
      United Kingdom
      admin@readconsortium.com

      How Engagement Proceeds

      • An initial briefing to establish fit and the capability a prospective Member would bring.
      • A Non-Disclosure Agreement.
      • Release of the confidential memorandum and supporting technical material.
      • Structured discussion of participation, position in the chain and phasing.

      Start With A Question

      The assistant on this site will answer most technical and commercial questions — the geology and chemistry, the magnet metallurgy, who the end customers are, how magnets are priced, where the margin sits in the chain, and how the consortium model works.