Open data · green transition

Who builds the machines of net zero — and who pays?

The green transition is the biggest industrial build-out of the century. In 2025 the world installed a record 664 GW of solar and 165 GW of wind, sold more than 20 million electric cars, and put nearly twice as much money into clean energy as into oil, gas and coal. But the machines doing the work are made in one country: China holds roughly 85% of the world's solar-manufacturing capacity, over 80% of battery-cell output and 60% of wind-turbine and electrolyser production — and its factories now make far more than the world can install, at prices no rival can match. Europe deploys but does not build, and is spending hundreds of billions of euros of public money — from the carbon-market-funded Innovation Fund to the €650bn recovery facility — to change that before the money runs out. This dashboard tracks where the machines are made, which minerals they eat, where the EU's green money goes and who is left holding the overcapacity — using open data from the IEA, IRENA, GWEC, SolarPower Europe, BloombergNEF and the European Commission.

0expected to flow into clean energy in 2026 — almost twice the $1.2 tn going to oil, gas and coal (IEA)
0of the world's solar-manufacturing capacity is in China — along with over 80% of battery-cell output (IEA)
0of solar PV installed worldwide in 2025, an all-time record; wind added another 165 GW (SolarPower Europe, GWEC)
0raised by the EU carbon market in 2025 — every euro of it earmarked by law for climate and energy spending (European Commission)
Interactive map

The green transition world map

Clean-tech factories from the polysilicon belts of Inner Mongolia to the gigafactories of Hungary and Georgia; the projects the EU is paying for — Innovation Fund flagships, Hydrogen Bank winners and the coal regions living on Just Transition money; and the graveyard of stalled, cancelled and bankrupt plants that mark Europe's and America's first industrial casualties. Tap a marker for details; toggle layers below. Circle size ≈ scale of the site.

Operating factory EU-funded flagship / Just Transition territory Stalled, cancelled or bankrupt Under construction, planned or restarting
From mine to megawatt

The machines — and who makes them

The transition runs on a short list of machines — solar modules, battery cells, wind turbines, electrolysers, heat pumps, and the transformers and cables that tie them to the grid — each with its own chain from mineral to material to component. Tap a tile to see who makes it, at what share of the world market, and what it costs.

Materials (upstream) Components & machines (midstream) Deployment & end use Circular
Six steps

The journey of a gigawatt

From a lithium brine in the Atacama or a polysilicon furnace in Inner Mongolia to a rooftop in Bavaria and, eventually, a shredder in Norway: six steps, four continents, and a chokepoint at almost every one of them.

← swipe →
Deployment & investment

The build-out, by the numbers

Whatever the politics, the machines keep getting installed: solar added a record 664 GW in 2025, wind 165 GW, and one in four new cars sold was electric. The money is following — clean-energy investment now runs at close to twice fossil-fuel spending — but 2026 is set to bring the first contraction in global solar installations in years as China's own boom cools.

Solar and wind capacity added each year

Gigawatts of new capacity installed worldwide, 2018–2025
Sources: SolarPower Europe, Global Market Outlook for Solar Power 2026–2030 (2025: 664 GW, +12%; 2026 forecast 612 GW, −8%, driven by a ~24% drop in China; global fleet passed 3 TW in early 2026); GWEC Global Wind Report 2026 (2025: 165 GW, +40%; offshore 9.3 GW; China >120 GW; Asia 80% of additions). 2018–2022 solar figures come from successive SolarPower Europe editions and are approximate.

Electric car sales

Millions of battery-electric and plug-in hybrid cars sold worldwide per year
Source: IEA Global EV Outlook (successive editions; 2025 shown as 20.5 — the IEA reports "more than 20 million", +20%). One in four cars sold worldwide in 2025 was electric: ~55% of car sales in China, 28% in Europe (sales +30%), just under 10% in the US, where Q4 2025 sales fell 45% year-on-year after the federal credit expired. Chinese brands supplied about 60% of global EV sales. The IEA expects ~23 million in 2026.

Clean energy vs fossil fuel investment

Trillion US dollars per year, world (IEA World Energy Investment)
Source: IEA World Energy Investment 2022–2026 (each year's edition; 2026 is the IEA's projection; figures rounded and revised between editions). 2026: $3.4 tn in total, of which $2.2 tn clean energy — solar alone $365 bn, grids $550 bn (+~20%), battery storage over $100 bn — against $1.2 tn for oil, gas and coal. China accounts for almost a third of global clean-energy investment.

The learning curve: battery pack prices

Volume-weighted average lithium-ion pack price, $/kWh (BloombergNEF)
Source: BloombergNEF annual Battery Price Survey (December 2025: $108/kWh, −8% year-on-year, real terms). Battery-electric-vehicle packs averaged $99/kWh, stationary-storage packs $70/kWh (−45%) and LFP packs $81/kWh versus $128/kWh for NMC — the learning curve that made Chinese cells unbeatable and most Western gigafactories unbankable.
Manufacturing

Where the machines are made

Manufacturing is where the transition's geography inverts. The world installs everywhere; it builds in one place. China's share runs from about 60% of wind-turbine and electrolyser capacity to more than 80% of battery cells and around 85% of the entire solar supply chain — and it built that capacity so fast that the industry runs at roughly half utilisation, with the top four solar makers losing money on every module they ship.

China's share of global manufacturing capacity, by technology and stage

Per cent of world capacity (IEA estimates)
Source: IEA Energy Technology Perspectives 2026 and Advancing Clean Technology Manufacturing (2024): China ~85% of solar supply-chain capacity (95%+ for wafers, >80% for modules), >80% of battery-cell production in 2025, ~85% of cathode and >90% of anode active material, 60% of wind-turbine production capacity (Europe 19%, US 9%), ~60% of electrolyser manufacturing and 35% of heat-pump capacity (US 25%, EU 20%).

Four industries, four different fights

Solar is a price war Europe has already lost; batteries are a fight it is losing; wind and grids are the strongholds it is defending; hydrogen is the front that collapsed before it began
Sources: pv magazine and PV Tech (Chinese PV makers' FY2025 results — LONGi net loss CNY 6–6.5bn, JinkoSolar RMB 4.45bn on 86 GW shipped; top four lost $1.54bn in H1 2025; export VAT rebate abolished from 1 April 2026; polysilicon consolidation platform registered 9 December 2025; eight-producer anti-involution pact 6 August 2026); SNE Research (2025 EV-battery installations 1,187 GWh; CATL 39.2%, BYD 16.4%, LG Energy Solution 9.2%); Wood Mackenzie (2025 order intake 215 GW; Chinese OEMs ~70% of orders); Vestas, Nordex and Siemens Energy FY2025/26 disclosures; IEA Global Hydrogen Review 2025; thyssenkrupp nucera and Nel disclosures; Benchmark Mineral Intelligence (European cell capacity ~252 GWh in 2025; pipeline −8% 2023–26).

From mine to megawatt, step by step

The solar-and-battery route (top) is where China's grip is near-total; the wind-and-grid route (bottom) is where Europe still builds. Scroll sideways on mobile →
SOLAR & BATTERY ROUTE (CHINA: 80–97% OF EVERY STAGE) WIND, GRID & ELECTROLYSER ROUTE (EUROPE'S LAST STRONGHOLDS) 1 · Minerals ⛏ Lithium, cobalt, nickel, graphite, copper, rare earths, silicon energy sector: ~75% of demand growth 2 · Materials 🧪 Polysilicon, cathode & anode powders, electrolyte, foils China: 85% cathode, 90%+ anode 3 · Components ⚙️ Wafers & cells; battery cells and modules; inverters China: 95% wafers, 80%+ cells 4 · Machines 🔋 Solar modules, EV packs, grid batteries, EVs 20m+ EVs sold in 2025 (IEA) 2 · Materials 🧲 Steel, copper wire, NdFeB magnets, glass fibre, resins China: ~94% of NdFeB magnets 3 · Machines 🌬 Nacelles, blades, towers, transformers, cables, stacks Europe: 19% of turbine capacity 5 · Megawatts ⚡ Permits, grid connections, installers, auctions, subsidies — where the EU's money lands 664 GW solar + 165 GW wind in 2025
Sources: IEA Global Critical Minerals Outlook 2026 (energy sector's share of mineral demand growth); IEA Energy Technology Perspectives 2026 (manufacturing shares); IEA Global EV Outlook 2026; SolarPower Europe; GWEC; magnet share via our Rare earths dashboard. The solar-and-battery route is the one Europe imports almost entirely; the wind-grid-electrolyser route is where European OEMs (Vestas, Siemens Gamesa, Nordex, Prysmian, Nexans, NKT, Hitachi Energy) still lead outside China.
What the machines eat

The mineral bill of the transition

Every gigawatt is a shopping list: lithium, cobalt, nickel, manganese and graphite for the cells; copper for every wire, motor and transformer; rare earths for the magnets in EV motors and offshore turbines; silicon for the panels. The IEA reckons the energy sector drove about three-quarters of the growth in demand for these minerals in 2025 — and the refining of almost all of them is more concentrated than the machines they go into. Each card links to our dedicated dashboard.

Share of world demand that comes from clean-energy technologies

EVs and storage, solar, wind, grids, hydrogen and other low-emission technologies — per cent of total demand (IEA)
~75%of the growth in demand for key energy minerals in 2025 came from the energy sector, up from 70% in 2024 (IEA). Global battery demand passed 1.5 TWh (+35%), and refining concentration hit new record levels — the chokepoint sits upstream of every factory on this page.
Sources: IEA Global Critical Minerals Outlook 2026 (demand growth, battery demand, refining concentration; EVs ~58% and stationary storage ~30% of incremental lithium demand; lithium demand ×3 by 2040, nickel, graphite and rare earths +50–90%); refining shares as documented on each mineral.watch dashboard (IEA, USGS, Cobalt Institute, INSG).
Follow the money

Europe's green war chest, fund by fund

There is no single "EU green budget". There is a stack of instruments — some financed by the carbon market, some by joint borrowing, some by the regular seven-year budget, some by the European Investment Bank — each with its own rules, calendar and absorption problem. Together they are the largest public bet on the green transition outside China. Here is the stack, fund by fund, as of September 2026.

~€270 bn

of the EU's €650 billion Recovery and Resilience Facility went to climate measures — 42% of the money, against a 37% legal minimum — making it the biggest green pot Brussels has ever run. It closes on 31 December 2026. How the main instruments compare, in € billion over their lifetimes:

Envelopes are multi-year totals in current prices and are not directly comparable: RRF climate share = 42% of the €650bn facility (Commission, 2026); Social Climate Fund €86.7bn 2026–32 includes a 25% national contribution and shrinks to ~€54.6bn of EU money with ETS2 starting in 2028; Modernisation Fund (>€57bn) and Innovation Fund (~€40bn) to 2030 are estimates that move with the carbon price; Just Transition Fund €19.3bn 2021–27; Horizon Europe Cluster 5 (climate, energy, mobility) ~€15bn; Connecting Europe Facility energy strand €5.8bn; LIFE €5.4bn.

The Innovation Fund: what each call handed out

Grants awarded per large-scale call, € billion (European Commission / CINEA)
Source: European Commission / CINEA award announcements — large-scale calls and auctions only (small-scale calls add roughly €200m). IF23 and IF24 show grants actually signed (€4.2bn for 77 projects and €2.7bn for 54, versus €4.8bn/85 and €2.9bn/61 announced). IF24 Battery: six cell-manufacturing projects selected for €852m of a €1bn pot. Hydrogen Bank auctions: €720m for 7 projects (April 2024), €992m for 15 (May 2025), €1.09bn for 9 (May 2026, 1.1 GW, lowest bid €0.44/kg). IF25 (€2.9bn budget, 358 applications, €1bn ring-fenced for cleantech manufacturing) reports in Q3 2026. Roughly €17bn awarded in six years — against an expected ~€40bn to 2030.

Just Transition Fund: who gets what

National allocations 2021–2027, € billion, current prices
Source: European Commission JTF allocations, current prices (total €19.32bn, of which €10.87bn from NextGenerationEU; €19.7bn after voluntary transfers). Top five shown individually. Spending is the problem, not the money: only €735m had actually been paid out by March 2025, and by late 2025 Poland had committed 73% of its allocation but disbursed about 12.5% (Germany had committed 49%, Romania 38%). The 2021–27 money must be spent by end-2029.

The industrial-policy toolkit since 2023

Beyond the budget lines: the laws, banks and state-aid rules Brussels built after the US Inflation Reduction Act
InstrumentDateMoney / targetWhat it does — and where it stands
Sources: European Commission (Green Deal Industrial Plan, NZIA, CRMA, Clean Industrial Deal, CISAF, Automotive Package, RESourceEU, Industrial Accelerator Act proposal, MFF 2028–34 proposal); Council of the EU (ECF partial position, 16 June 2026); EIB Group 2025 results; state-aid decisions on the battery and hydrogen IPCEIs.
What comes next. The Commission's proposal for the 2028–2034 budget (16 July 2025, ~€2 trillion) would fold 14 programmes — the Innovation Fund among them — into a €409bn European Competitiveness Fund (€234bn plus Horizon Europe's €175bn) with a dedicated clean-transition and industrial-decarbonisation window, and merge cohesion and just-transition money into national and regional partnership plans. The Council agreed a partial position on the fund on 16 June 2026; governments aim to settle the whole budget by the end of 2026 so money can flow from January 2028. Meanwhile the RRF stops paying on 31 December 2026 — with no successor of comparable size.
Geopolitics

A deal, a race and a reckoning

Seven years from the Green Deal to the Industrial Accelerator Act: Europe wrote the rules, America wrote the cheques, China built the factories — and then the cheques were cancelled, the factories flooded the market, and Brussels started writing "Made in Europe" into law.

Sources: European Commission and Council press releases; Official Journal; US Congress (P.L. 119-21) and Treasury/IRS Notice 2025-42; E2 Clean Economy Works; Environmental Defense Fund / Atlas Public Policy; ENTSO-E; company disclosures (Northvolt, Lyten, ACC, Stegra, Meyer Burger, PowerCo, CATL); pv magazine, PV Tech, electrive, OPIS, Reuters, Bloomberg.
Concentration risk

The one-country supply chain

For minerals, the chokepoint is the refinery; for the green transition it is the factory floor. From the wafer to the pack, from the magnet to the inverter, one country makes most of the world's supply — and holds the export controls, the overcapacity and the price-setting power that come with it.

~85%

of the world's solar supply-chain manufacturing capacity is in China (IEA, 2025). The grip along the chain, stage by stage:

Sources: IEA Energy Technology Perspectives 2026 (solar, battery, wind, electrolyser and heat-pump capacity shares, 2025); IEA Global EV Outlook 2026 (Chinese automakers' ~60% share of global EV sales); Wood Mackenzie (Chinese OEMs ~70% of 2025 wind-turbine orders); IEA Global Hydrogen Review 2025 (China 65% of installed electrolysis capacity); SolarPower Europe / ESMC (Chinese inverters in ~80% of new EU PV systems; Huawei alone 115 GW). Magnet share via our Rare earths dashboard.
Security

When the grid runs on someone else's hardware

Europe swapped a dependence on Russian gas for a dependence on Chinese hardware — and discovered in 2025 that hardware can be switched off. Rogue radios in inverters, a peninsula-wide blackout, a blocked turbine factory and a rare-earth embargo turned the green transition into a security file.

Sources: Reuters (May 2025, undocumented communication devices in Chinese inverters); SolarPower Europe and ESMC (Chinese inverter share, Huawei 115 GW); European Commission Economic Security Doctrine and funding guidance of 13 May 2026; Lithuanian legislation (2024); ENTSO-E Expert Panel final report on the 28 April 2025 Iberian blackout (20 March 2026, 22 recommendations); UK government decision on Mingyang (2026); Chinese Ministry of Commerce export-control announcements (April, October and November 2025); IEA Energy Technology Perspectives 2026 (Chinese-owned battery capacity abroad); European Commission Grids Package (10 December 2025).
Capital flows

Where the green money is going

Roughly $2.2 trillion a year now goes into clean energy — a third of it in China, a shrinking slice in the United States, and in Europe an increasingly public mix of EIB loans, carbon-market grants and state aid propping up a gigafactory sector that the market alone would not finance. Presented as observation, not investment advice.

This section describes where capital is flowing, based on public data. It is not financial advice.
Sources: IEA World Energy Investment 2026; E2 Clean Economy Works (2025 annual analysis; Q1 2026); EDF / Atlas Public Policy (mid-2026); EIB Group 2025 results; European Commission (Battery Booster Facility, RESourceEU, Innovation Fund awards); Benchmark Mineral Intelligence (European gigafactory pipeline); SolarPower Europe (EU battery storage 27.1 GWh in 2025); Tesla, Prysmian, Nexans, thyssenkrupp nucera, Nel, Lyten, ACC and PowerCo disclosures.
Company tracker

The companies that build the transition

Module makers losing money on record shipments, cell makers bankrupt in Sweden and booming in Fujian, turbine makers recovering in Denmark and rebuffed in Scotland, electrolyser makers watching orders vanish, and the materials firms trying to rebuild Europe's midstream. Filter by technology or search.

CompanySegmentKey assetsStatus & recent signals
Company status reflects public disclosures as of August 2026. This is an observational tracker, not investment advice.
Sources: company disclosures and filings (FY2025 and H1 2026); SNE Research; Wood Mackenzie; IEA; pv magazine; PV Tech; electrive; Hydrogen Insight; Recharge; Reuters; Bloomberg.
Data & methodology

Open data sources

FAQ

Common questions

What is the green transition supply chain?

It is the chain of mines, refineries, materials plants, component factories and installers that turns minerals into the machines of a low-carbon energy system: solar modules, wind turbines, battery cells and electric vehicles, electrolysers, heat pumps, and the grid transformers, cables and storage that connect them. Each machine has its own chain — polysilicon to wafer to cell to module for solar; cathode and anode powders to cells to packs for batteries; rare-earth magnets, steel and glass fibre to nacelles and blades for wind — but they share the same upstream minerals (lithium, cobalt, nickel, graphite, copper, rare earths, silicon) and, increasingly, the same manufacturing geography: China holds roughly 85% of solar and over 80% of battery-cell capacity, and around 60% of wind-turbine and electrolyser manufacturing (IEA).

Who makes the world's solar panels, batteries and wind turbines?

Mostly China. The IEA puts China at around 85% of global solar supply-chain manufacturing capacity — 95% or more for wafers and over 80% for modules — at over 80% of battery-cell production in 2025 (85% of cathode and more than 90% of anode material), at 60% of wind-turbine production capacity and around 60% of electrolyser manufacturing. Chinese companies also took about 70% of the world's wind-turbine orders in 2025 (Wood Mackenzie), and CATL and BYD alone supplied 55% of EV batteries (SNE Research). Europe's strongholds are wind (19% of turbine capacity), grid equipment — Prysmian, Nexans, NKT, Siemens Energy, Hitachi Energy — and heat pumps (20%); the United States is rebuilding solar-module capacity (First Solar ~14 GW, Qcells, T1 Energy) behind tariffs and the 45X manufacturing credit.

How much does the world invest in clean energy?

About $2.2 trillion a year. The IEA's World Energy Investment 2026 expects total energy investment to reach $3.4 trillion in 2026, of which $2.2 trillion goes to renewables, nuclear, grids, storage, low-emission fuels, efficiency and electrification — almost twice the $1.2 trillion flowing to oil, gas and coal. Solar alone attracts about $365 billion (roughly $1 billion a day), grids $550 billion and battery storage more than $100 billion. China accounts for almost a third of the clean total; the United States saw $34.8 billion of announced clean-energy projects cancelled in 2025 after federal tax credits were cut (E2).

How much does the EU spend on the green transition?

There is no single figure, because the money sits in a stack of instruments. The largest is the €650 billion Recovery and Resilience Facility (2021–2026), 42% of which — roughly €270 billion — went to climate measures. Cohesion policy (€392 billion for 2021–27) must direct 30% of its regional fund and 37% of its Cohesion Fund to climate objectives. The carbon market feeds three dedicated funds: the Innovation Fund (about €40 billion expected over 2020–2030, some €17 billion awarded so far), the Modernisation Fund (over €57 billion expected by 2030 for 13 lower-income member states, €23.2 billion disbursed) and, from 2026, the Social Climate Fund (€86.7 billion to 2032 including national co-financing). Add the €19.3 billion Just Transition Fund, Horizon Europe's roughly €15 billion climate-energy-mobility cluster, the Connecting Europe Facility's €5.8 billion for energy and €5.4 billion under LIFE — plus the European Investment Bank, which signed €57 billion of green financing in 2025 alone, and the €38.8 billion (2024) to €43 billion (2025) a year of ETS auction revenue that member states must spend on climate.

What is the EU Innovation Fund?

The EU's main grant programme for first-of-a-kind clean-technology projects, financed not from the budget but from the sale of emissions allowances under the EU carbon market — which makes its size move with the carbon price (roughly €40 billion expected for 2020–2030). It runs annual competitive calls: €1.1 billion (2020), €1.8 billion (2021), €3.6 billion (2022), €4.2 billion signed for 77 projects (2023) and €2.7 billion for 54 projects (2024), plus dedicated pots — €852 million for six battery-cell factories in 2025 and the European Hydrogen Bank auctions, which have awarded €720 million, €992 million and €1.09 billion in fixed premiums to renewable-hydrogen producers since 2024. The 2025 call (€2.9 billion, with €1 billion ring-fenced for cleantech manufacturing) drew 358 applications and reports in late 2026. Since February 2025 the Innovation Fund is also the seed of the €100 billion Industrial Decarbonisation Bank, and the Commission proposes to fold it into the European Competitiveness Fund from 2028.

What is the Just Transition Fund?

A €19.3 billion fund (2021–2027, €10.9 billion of it from NextGenerationEU) that pays for retraining, diversification, land rehabilitation and clean-energy projects in the roughly 100 coal, lignite, peat, oil-shale and carbon-intensive territories most exposed to the climate transition — from Silesia and Bełchatów in Poland to Western Macedonia, the Jiu Valley, Ida-Viru, Asturias, Lusatia and Sulcis. Poland (€3.85 billion), Germany (€2.5 billion), Romania (€2.1 billion), Czechia (€1.6 billion) and Bulgaria (€1.2 billion) are the biggest recipients. It is the first pillar of the Just Transition Mechanism, alongside an InvestEU scheme and a public-sector loan facility. Its weakness is speed: by March 2025 only €735 million had actually been paid out, and analysts fear the 2028–34 budget proposal, which merges it into national plans, will dilute it further.

Why did Northvolt fail, and what does it mean for Europe's gigafactories?

Northvolt raised about $15 billion to become Europe's battery champion and filed for bankruptcy in Sweden on 12 March 2025 after years of production problems at its Skellefteå plant, a lost BMW contract and a market in which Chinese cells cost a fraction of European ones — BloombergNEF's 2025 survey put average pack prices at $108/kWh and LFP packs at $81. Its Swedish assets were bought by California's Lyten, which completed the deal in February 2026, is restarting Skellefteå with first shipments due in the second half of 2026 and plans to open the Heide site in Germany in 2028. The wider lesson is being learned across the continent: ACC cancelled its German and Italian plants in February 2026 while ramping Billy-Berclau, Volkswagen's PowerCo only started Salzgitter in December 2025 and pushed Valencia to mid-2027, and Europe's gigafactory pipeline shrank 8% between 2023 and 2026 — the only major region to lose capacity. The plants actually being built in Europe today are increasingly Chinese- or Korean-owned: CATL in Debrecen, BYD in Szeged, LG in Wrocław, Samsung SDI and SK On in Hungary.

Is Europe's green transition dependent on China?

On hardware, yes. The EU imports the overwhelming majority of its solar modules, around 80% of its new PV systems use Chinese inverters (Huawei alone accounts for 115 GW), Chinese companies dominate the battery cells going into European cars, and China refines 60–90% of the lithium, cobalt, graphite and rare earths behind them. The dependence has become a security question: in 2025 undocumented communication devices were found in Chinese inverters, China restricted rare-earth exports to European carmakers and turbine makers, and in 2026 the UK blocked a £1.5 billion Mingyang turbine factory. The EU's answers are the Net-Zero Industry Act's 40% domestic-manufacturing benchmark for 2030, the Industrial Accelerator Act's 'Made in Europe' rules proposed in March 2026, the Commission's May 2026 guidance denying EU funds to projects using high-risk-supplier inverters, and a price-undertaking deal that replaced most EV tariffs in 2026. Where Europe is not dependent is wind, grids and heat pumps — the machines its own companies still lead.

Need a deep-dive report on the green transition supply chain?

That's exactly what we do. We produce commissioned deep-dive reports on the green transition and the strategic minerals behind it, covering angles such as mine-to-megawatt supply-chain mapping for a given technology, EU funding and state-aid tracking (Innovation Fund, Hydrogen Bank, RRF, Just Transition Fund, IPCEIs) by country or sector, manufacturing-concentration and import-dependence analysis, gigafactory and offtake pipelines, and the security exposure of grid hardware. Every report is source-cited — charts, maps and citations included — and built on the same open, verified data behind this dashboard. Email hello@mineral.watch with a short note on what you need and we'll come back with a scoped proposal.

Custom research

Need an ad hoc data-driven research report?

We produce bespoke, source-cited research on the green transition and the strategic minerals behind it — supply-chain mapping from mine to megawatt, EU funding and state-aid tracking, trade-flow analysis, country and technology deep-dives — built on the same open data behind this dashboard.

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