The Value Gap · CGR 2026 headline
Six numbers that reframe the debate.
Where the €25.4 trillion actually leaks out.
The CGR 2026 breaks the Value Gap into five interlinked loss pathways. Two of them — end-of-life waste and energy losses — account for roughly three-quarters of the total. The consumption of fixed capital (buildings, infrastructure, machinery deteriorating before their useful life ends) adds another €5.2 trillion. These are not rounding errors: they are structural leaks in how the linear economy is designed.
The Value Gap by loss pathway
€ trillion per year, initial CGR 2026 estimate (with uncertainty)
Source: Circle Economy & Deloitte, Circularity Gap Report 2026 — The Value Gap (executive summary, initial estimate). Ranges reflect methodological uncertainty.
The four mechanisms the CGR 2026 identifies as driving value loss across all five pathways.
The material story underneath the numbers.
The Value Gap is a new lens, but the physical economy it measures is the one Circle Economy has been tracking since 2018. Extraction is still climbing, the share of secondary materials in the input mix is still falling, and six of nine planetary boundaries remain crossed. The charts below show the material story that the CGR 2026 sits on top of.
The circularity metric is going the wrong way.
Since Circle Economy started measuring it in 2018, the share of secondary materials feeding the global economy has fallen every year. Not because we recycle less — because virgin extraction is growing faster than recycling can keep up.
Global Circularity Metric, 2018 – 2023
Share of secondary materials in total material input (%)
Source: Circle Economy, Circularity Gap Report series 2018 – 2025.
Extraction tripled in fifty years. It’s not slowing.
Global material extraction climbed from around 30 billion tonnes in 1970 to more than 106 billion tonnes in 2023. On business-as-usual, the UN International Resource Panel projects a further 60% rise by 2060 — a scale of throughput no combination of recycling can absorb.
Global material extraction, 1970 – 2060
Billion tonnes per year (historic solid, projected dashed)
Source: UNEP International Resource Panel, Global Resources Outlook 2024, cited in Circularity Gap Report 2026.
Where the 106 billion tonnes go.
Of every tonne of material flowing into the global economy in 2021, just 69 kilograms came from a recycled source. Nearly two-fifths ended up locked into new buildings, roads and infrastructure, and roughly one-third was burned or dumped without recovery.
Global material input by category, 2021
Share of ~106 Gt of material inputs (%)
- Net additions to stock38%
- Carbon-neutral biomass21.5%
- Virgin non-renewable to landfill18.1%
- Fossil fuels for energy13.3%
- Secondary materials (circular)6.9%
- Non-carbon-neutral biomass2.2%
Source: Circularity Gap Report 2026, Table 1 (input-side indicators, data year 2021).
The 6× gap in who’s consuming what.
High-income countries house less than a fifth of the world’s people but consume more than half its materials. A person in a high-income country has a material footprint six times that of someone in a low-income country — and three times what the UN considers a sustainable level.
Per-capita material footprint
Tonnes of materials per person, per year
Source: Circularity Gap Report 2026, citing UNEP IRP material footprint data.
Six of nine planetary boundaries have been crossed.
The 2023 update of the planetary-boundaries framework confirmed that humanity is operating outside the safe space on six of the nine Earth-system processes that keep the planet habitable. Material extraction and use drive around two-thirds of greenhouse-gas emissions and more than 90% of biodiversity loss and water stress.
How far past the line — global overshoot per boundary
Red dotted line = the safe operating boundary. Bars extend to how far current state sits from that line.
Source: Richardson et al. 2023, Planetary Boundaries update; cited in Circularity Gap Report 2026.
Where continental data exists — four of nine boundaries.
Only four planetary boundaries can honestly be broken down by continent: land-system change, freshwater use, and the two biogeochemical flows (nitrogen and phosphorus). The other five — climate, ozone, aerosols, ocean acidification, novel entities — are global system properties that don’t have per-continent thresholds.
Regional status on the four regionalisable boundaries
Qualitative status per continent — crossed, at risk, or within safe zone.
| Boundary | Africa | Asia | Europe | N. America | S. America | Oceania |
|---|---|---|---|---|---|---|
| Land-system change | ✕ Sahel & Congo basin loss | ✕ SE Asia deforestation | ✕ Long-cleared, low reforestation | ! Boreal loss accelerating | ✕ Amazon tipping zone | ! Australian land clearing |
| Freshwater use | ! N. Africa extreme; sub-Sahara mixed | ✕ India, N. China, Central Asia | ! S. Europe crossed; N. safe | ✕ US SW & Mexico | ✓ Chile Andes exception | ! Murray–Darling stressed |
| Nitrogen flows | ✓ Under-fertilised overall | ✕ China, India >2× safe | ✕ Historic surplus, slow decline | ✕ US corn belt driver | ! Brazil soy expansion | ✓ Low intensity |
| Phosphorus flows | ✓ P-deficient soils | ✕ Major surplus regions | ! Legacy P in soils & waters | ✕ Great Lakes eutrophication | ! Brazil expansion | ✓ Localised issues only |
Sources: Steffen et al. 2015 regional analysis; FAO Global Forest Resources 2020; WRI Aqueduct 4.0; Bouwman et al. / EDGAR nutrient databases. Continent bins are indicative — sub-regional variation is large.
Who is driving the overshoot — per person, per year.
Planetary boundaries are crossed by pressure, not by population alone. These are the four pressures with the clearest link to boundaries: CO₂ emissions (climate), material footprint (multiple), nitrogen fertiliser use (biogeochemical), and freshwater withdrawal. Values are per capita and continental averages hide big country-level differences.
Per-capita pressure by continent
Higher = more overshoot pressure per person. Red dotted line = an equal per-capita share of a 1.5°C-compatible pressure budget.
Sources: Global Carbon Budget 2023; UNEP IRP Global Material Flows Database; FAO / IFA fertiliser statistics; FAO AQUASTAT. Safe per-capita shares are equal-share allocations of published global budgets and are contested — they show scale of the gap, not policy.
The economy in one diagram: 106 in, 65 out.
Circle Economy’s headline figure hides a deeper story: the global economy takes in 106.1 billion tonnes of processed materials each year, and only 65.7 billion tonnes flow back out — the remainder accumulates as new buildings, roads and machines. Barely 7 Gt of that output is actually recycled.
Global material flow, 2021 (billion tonnes)
Left: inputs by category · Middle: total throughput · Right: fate of outputs
- Inputs — 106.1 Gt
- Net additions to stock40.3 Gt
- Carbon-neutral biomass22.8 Gt
- Virgin non-renewable19.2 Gt
- Fossil fuels14.1 Gt
- Secondary materials7.3 Gt
- Non-carbon biomass2.3 Gt
- Outputs — 65.7 Gt (+ 40.3 Gt into stock)
- Biomass waste & emissions23.2 Gt
- Landfilled without recovery18.8 Gt
- Fossil-fuel emissions14.2 Gt
- Recycled output7.3 Gt
- Non-carbon biomass waste2.2 Gt
Source: Circularity Gap Report 2026, Figure 3 (input/output flows, data year 2021). Net additions to stock appear on both sides because virgin materials feed the stock, and stock discard feeds back into output the following cycle.
The same planet, wildly different footprints.
The 12.2-tonne global average masks a per-capita spread of more than 10× between regions. Australia and North America now consume close to — or more than — three times what the UN considers a sustainable material footprint. Africa consumes less than half of it.
Per-capita material footprint by region
Tonnes per person per year (2020). Red line: 8t sustainable level
Source: UNEP International Resource Panel, Global Material Flows Database, 2020 values; cited in Circularity Gap Report 2026. Regional figures are indicative and rounded.
The 34 materials no one can afford to lose.
The Circularity Gap Report highlights that the energy and digital transitions will be metals-intensive — and the EU has already flagged 34 raw materials as critical, of which 17 are also strategic. Whether their value survives end-of-life is mostly settled at the design stage, long before anything reaches a recycler.
Source: European Commission, Critical Raw Materials Act (2023 list). Strategic materials are those judged essential to the green and digital transition and to defence and aerospace.
What the report actually asks for.
Circle Economy’s central argument is that recycling alone cannot close the gap — the level of throughput is the problem. The report calls for three shifts, in order of impact:
Science-based material use targets
Binding, per-capita ceilings on extraction and consumption — the equivalent of a 1.5° goal for materials.
Circular strategies in key systems
Housing, food, mobility and manufacturing account for the bulk of material use. Circular design and stock management concentrate here.
Level the playing field
Redirect the $1.4 trillion in fossil-fuel subsidies and price virgin extraction to reflect its true environmental cost.
The report also flags an under-reported upside: if every material currently landfilled that could be cycled were actually recovered, the global Circularity Metric would rise from 6.9% to around 25% — a near-fourfold jump without changing the level of extraction.
Want the underlying data for your own analysis?
Download the full 74-page report, or talk to us about how we turn this kind of macro data into readiness scoring and CRL diagnostics for individual companies and sectors.
Note on figures: all quantitative values on this page are drawn from the Circularity Gap Report 2026 (Circle Economy, in collaboration with Deloitte). The report’s data year is 2021 for material-flow indicators; extraction totals through 2023 draw on UNEP’s Global Resources Outlook. Where projections appear, they follow the UN IRP’s baseline trajectory.
