1.1 Material inputs |
|
Comp |
H |
H/M |
OECD MFRP; WP3 Core |
Double-headed indicator DMI & RMI, with complementary but related messages. Reflects the (raw) material basis of the economy accounting for domestic extraction and imports. To be read with information on the materials mix.
DMI and RMI cannot be aggregated at international level without double counting (e.g., EU, OECD regions). Could be a core indicator for use by countries.
Intensity and productivity ratios should be calculated using adequate components of GDP. |
|
Comp |
H |
H |
OECD MFRP |
Links to biological material cycles. Could equally be related to RMI. |
1.2 Material consumption |
Material consumption and productivity (trends; mix)
a. Production-based domestic material consumption (DMC)
b. Demand-based raw material consumption (RMC) (material footprint)
c. Production-based material productivity (GDP/DMC)
d. Demand-based raw material productivity (net disposable income/RMC)
|
Core |
H |
H/M |
SDG 8.4.2/12.2.2
SDG 8.4.1/12 2.1
OECD MFRP, GGI, CEI;
EU MF: footprint, productivity;
WP3 Core: footprint |
Double-headed indicators: DMC & RMC, with complementary but related messages. DMC can be related to future waste, recognising that there is a time lag between material consumption and waste generation.
To be read with information on the materials mix. To be complemented with information on unused material flows (see “natural resource implications”).
DMC and RMC can be aggregated at international level without double counting (e.g., EU, OECD regions).
N.B. work on common international method for demand-based measures is ongoing.
Material productivity could be the main core indicator, with DMI/RMI and DMC/RMC being complementary indicators. It characterises the environmental and economic efficiency with which natural resources and materials are used in production and consumption, and informs about the results of policies and measures that promote resource productivity and sustainable materials management in all sectors. Complemented with information on the share of recycled (secondary raw) materials, it informs about the results of policies that promote a circular use of materials. See “circular use rate” below.
Measures of material productivity extend productivity measurement and analysis to material resources and complement other single factor productivity measures such as labour productivity and capital productivity.
Material intensity indicators could be used in addition to reflect the level of decoupling between material consumption and economic growth.
Intensity and productivity ratios should be calculated using adequate components of GDP. In the absence of reliable data on net or gross national income, GDP can be used as a proxy for calculating the demand-based indicator. |
|
Comp |
H |
H |
OECD MFRP |
Links to biological material cycles. Could equally be related to RMC. |
|
Comp |
M |
L |
OECD MFRP |
Links to circular design. Requires a common definition of “recyclable” materials. “Recyclability” is challenging to define. Technical and economic factors play a role. |
1.3 Material accumulation |
|
Comp |
H |
M |
OECD MFRP |
Reflects the physical growth of the economy. Links to potential future waste and to potential future “urban” mines of raw materials. Requires the further development of material flow accounts. |
|
Comp |
M |
L |
|
2.1 Waste generation (materials ending up as waste) |
Total waste generation (trends; intensity per GDP, per capita)
‒ Municipal waste generation |
Core |
H |
M |
OECD CEI; EU MF, SDG 11.6.1; WP3 Core |
Waste generation should ideally cover all primary waste generated to be relevant from a macro-economic CE point of view. If not available, municipal waste could be used as a proxy to get started. Municipal waste is a good indicator to reflect efforts or the lack of efforts by citizens and households. Idem for other waste-related indicators proposed here.
Waste generation should ideally distinguish between mineral waste and other waste. |
M |
H/M |
-
Waste generation trends by source, and by waste or material type (% contribution to total; trends)
– e.g., Hazardous waste; waste electrical and electronic equipment; packaging waste, plastics; construction & demolition waste; mining and quarrying waste
|
Comp |
H |
M |
OECD CEI; EU MF |
Complements the core indicator with a breakdown by source sector (ISIC/NACE) and by type of waste or material. Particular attention could also be given to waste streams that raise concerns such as hazardous waste, WEEE, plastics, packaging waste, C&D waste, mining and quarrying waste.
To be related to indicators on targets and distance to targets to monitor policy outcomes. |
|
Comp |
H |
M/L |
|
Indicator derived from waste accounts building on the SEEA with a breakdown by sector (ISIC/NACE) aligned with national accounts, which opens up additional analyses. Requires the elaboration and maintenance of waste accounts in countries. |
|
Comp |
M |
M |
OECD MFRP |
Relates total primary waste generation to the amount of material consumed or used in the economy. Could be applied to product groups. Interpretation: Should take into account stocks, recognising that there is a time lag between material consumption and waste generation. |
Food waste generated
‒ Food loss index (production and supply levels)
‒ Food waste index (retail and consumption levels) |
Comp |
H |
L |
SDG 12.3.1, EU MF; WP3 Core |
Reducing food waste and food loss has an enormous potential for saving the resources used to produce food. Links to environmental implications. Most relevant indicator to be selected. Methodological guidance exists from Eurostat/EU and from SDG indicator metadata (FAO, UNEP). |
|
Comp |
M |
M |
SDG 12.4.2 |
Hazardous waste raises particular management and environmental issues. Links to the implementation of the Basel Convention, OECD decisions and EU Directives. |
|
|
|
|
|
|
|
2.2 Circularity of material flows |
Circular material use rate: all materials, material groups, selected materials
(% contribution of recycled materials (secondary raw materials) to material consumption) |
Core |
H |
H/M |
EU MF; OECD MFR;P WP3 Core |
Links data from waste statistics to data from material flow accounts and trade statistics.
Can be calculated in different ways depending on the purpose and the data available.
[A] To measure a country’s recycling efforts, whether domestically or abroad, it can be calculated as: recycled amounts (waste recycled in domestic recovery plants minus imported waste destined for recycling plus exported waste destined for recycling abroad) over material use (DMC+recycled amounts).
[B] To reflect the extent to which recycled materials contribute to satisfying a country’s demand for materials without adding pressure on natural resources, it can be calculated as: recycled amounts (waste recycled in domestic recovery plants plus imported waste destined for recycling minus exported waste destined for recycling abroad) over material use (DMC+recycled amounts).
Should ideally be calculated using amounts of materials coming out of recycling processes, net of losses during the recycling process (cf. Japan). Can also be calculated using the amounts of waste being sent to recycling including losses during the recycling process (cf. Eurostat; Circular material use rate — Calculation method — 2018 edition - Products Manuals and Guidelines - Eurostat (europa.eu)).
The use of DMC avoids double counting when aggregating at international level (e.g. across EU, OECD regions). At national level, countries may wish to calculate this indicator by relating the amounts recycled to DMI (see the circular input use rate used in Japan)1.
Should ideally be calculated using raw material consumption (RMC) when available.
Could be expanded to account for reused materials if data availability permits. |
|
Comp |
H |
L |
EU MF |
Complements the circular material use rate. Level of application (tbd): by sector, material type, product groups or company. Could focus on “strategic” raw materials (see also “supply security” below). Feasibility of a harmonised measurement at international level to be explored. Builds on data from material system analysis. See for example “Contribution of recycled materials to raw materials demand - end-of-life recycling input rates (EOL-RIR) (cei_srm010) (europa.eu)”: (Eurostat, 2024[33]) |
|
Comp |
H |
L |
ISO WD2 59020; WP3 Core |
Relates to material substitution and to biological material cycles. Reflects the proportion of virgin renewable materials in material inputs; to be complemented with indicators on the proportion of recycled and reused content in material inputs. Level of application (tbd): by sector, product groups or company. Feasibility of a harmonised measurement at international level to be explored. Data disclosure by companies to be explored. Interpretation to consider the overall environmental footprint of renewable materials vs. non-renewable materials and the sustainability of the management of the natural resource from which they are extracted. |
2.3 Products diverted from the waste stream (repair, remanufacture, reuse) |
|
Comp |
H |
M/L |
WP3 Core |
Can be related to product design and manufacture. Data availability and alternative data sources to be explored. Feasibility of a harmonised measurement at international level to be explored. |
|
Comp |
H |
|
|
2.4 Materials diverted from final disposal through recycling or recovery |
National recycling rate: proportion recycled in total waste generated (or collected)
‒ Municipal waste recycling rate |
Core |
H |
M |
SDG 12.5.1 ; OECD MFRP, CEI, GGI/ EU MF; WP3 Core |
Refers to all waste materials recycled in the country plus quantities exported for recycling out of total waste generated in the country, minus material imported for recycling. Recycling includes material recycling, codigestion/anaerobic digestion and composting/aerobic process if the compost/digestate is used as a recycled product/material; does not include controlled combustion (incineration) or land application. Should distinguish between mineral waste and other waste.
Requires a consolidation and strengthening of waste statistics. Municipal waste recycling could be used as proxy and to reflect efforts by citizens and households. To be read together with information on other recovery types and on waste going to final disposal. |
-
Recycling or recovery rates for selected waste or material types (e.g bio-waste, WEEE, plastics; packaging, construction and demolition waste)
|
Comp |
H |
M |
OECD MFRP ; EU MF |
Complements the national recycling rate. Can be related to indicators on targets and distance to targets below to monitor policy outcomes. Should distinguish between recycling and other recovery operations. |
|
Comp |
M |
H |
|
Could complement the national recycling rate. Not directly linked to circularity; relevance depends on country context and policy objectives. |
-
Capacity of waste recovery infrastructure, by type (recycling, incineration with energy recovery, other recovery)
|
Comp |
M |
M |
|
Interpretation: Capacity does not reveal whether waste is effectively recycled. To be read with information on actual recovery rates and on related infrastructure investments. Could be qualified as a contextual indicator.
To be read with information on the population with access to (i) waste management services (distinguishing between basic waste collection and separate collection services), and (ii) circularity options (i.e. recycling, composting, repair, etc.). |
2.5 Materials leaving the economic cycle |
Waste going to final disposal (landfill or incineration w/o energy recovery): total; by type of materials |
Core |
H |
H/L |
OECD MFRP; WP3 Core |
Reflects the amounts of materials leaving the economic cycle. Accounts for domestic waste going to final disposal in the country and abroad. Examples of material types include plastics, organic materials. Requires an appropriate breakdown in waste statistics or accounts. |
1.1 Changes in natural resource stocks |
Natural resource index: non-renewable assets (energy and mineral resources) / Depletion ratios: by type of material or asset (extraction over existing reserves) |
Core |
M |
M/L |
OECD MFRP, GGI |
Most relevant indicator and calculation method to be identified. Level of application (tbd): national, global. Data available for mineral and energy sub-soil resources (accounts) for selected “resource rich” countries by type of stock. Could be used as a proxy. See: OECD Statistical Platform (Code: NAT_RES) and (Schreyer and Obst, 2015[34]). |
|
Comp |
M |
H |
OECD MFRP |
To be derived from economy-wide material flow accounts. To be expanded with information on unused extraction (see below). |
|
Ctx |
M |
M |
|
Provides global context. |
Intensity of use of renewable freshwater resources: water stress (abstraction over available renewable stocks) |
Core |
H |
M |
OECD CEI, GGI; SDG 6.4.2; WP3 Core |
Reflects the (potential) pressure on renewable freshwater resources from abstraction during material extraction, processing and use (total freshwater abstraction). To be derived from water statistics and accounts. Should distinguish between freshwater abstraction during the production of goods and services (material extraction, processing, manufacturing) and freshwater abstraction during the consumption (use) of materials. |
|
Comp |
H |
M |
OECD CEI |
To be derived from forest resource accounts or from forest inventories. |
1.2 Other natural resource impacts |
|
Comp |
M |
M |
|
To be read with (i) water stress reflecting total freshwater abstraction from material extraction, processing and use, and (ii) water discharges and safe treatment. Sector scope to be confirmed and aligned with other similar indicators (GHG, air, water pollution). |
|
Comp |
M |
M |
|
|
|
Comp |
M |
L |
|
Refers to unused domestic extraction. Complements domestic extraction used. Could be related to information on potential impacts on habitats and ecosystems. |
2.1 Impacts on climate |
GHG emissions from production activities (trends, intensities)
‒ Total GHG emissions |
Core |
H |
M
H |
WP3 Core, EU MF |
To be derived from air emission accounts (SEEA). Refers to emissions from the production of goods and services.
Total emissions from GHG inventories could be used as a proxy. |
|
Comp |
M |
M |
WP3 |
Complements the core indicator by showing the contribution of waste management to GHG emissions. Could further be supplemented with “proportion of emissions from resource intensive sector” and “proportion of emissions and removals from land use, land use change and forestry”. |
|
Comp |
H |
M |
WP3 Core |
Complements the indicators on GHG emissions. To be read together with the material footprint indicator. Sector scope to be confirmed (all or focus on the production of good and services as for GHG emissions above). |
|
Comp |
M |
L |
OECD MFRP |
Complements the C footprint indicator. The materials, products, sectors to be covered need to be selected. To build on material systems analysis and life-cycle assessments. |
2.2 Impacts on air quality |
|
Comp |
M |
M |
|
To be derived from air emission accounts (SEEA). Refers to emissions from the production of goods and services. The pollutants to be covered need to be selected (e.g. PM2.5). |
2.3 Impacts on water and soil quality |
Pollutant discharges from production activities to water bodies & proportion safely treated
‒ Total discharges to water bodies & % safely treated |
Core |
H |
M |
OECD CEI; WP3 Core: safe treat. |
Discharges from material extraction and processing and their safe treatment. The pollutants to be covered need to be identified (e.g. heavy metals, nutrients). Sector scope to be confirmed and aligned with other similar indicators (GHG, air, water abstraction). Link to SDG 6.3.1. Total discharges to water bodies & % safely treated could be used as proxy. |
|
Comp |
M |
M |
|
Important indicators for countries confronted with basic waste management issues. Could otherwise be qualified as contextual indicators. |
Placeholder: Soil contamination |
Comp |
M |
|
|
Soil contamination due to material extraction & processing and end-of-life management. |
2.4 Impacts on biodiversity |
Placeholders: Impacts from material extraction, processing, use and end-of-life management on land, habitats and species |
Comp |
H |
M |
|
Possible indicators: land cover change with focus on the spatial occupation of the built environment; change in forest cover; land footprint.
Indicator reflecting the impacts of marine plastics would also be relevant. Developing and measuring such indicators would require a consensus on the methodologies to use (e.g. life cycle based assessments). |
2.5 Impacts on human health |
Placeholder |
Core |
H |
|
|
Most relevant impacts and core indicator to be identified. To be read with information on the baseline socio-economic distribution of environmental goods and bads, when available. |
Population exposure to air pollution; related premature deaths and welfare costs |
Comp |
M |
M |
|
To be derived from EO sources. See the WHO Global Burden of Disease project. See the OECD datasets on environmental health and risks. |
Placeholder: Water-related health impacts |
Comp |
M |
|
|
See WHO Global Burden of Disease project. Most relevant indicator to be identified. |
Placeholder: population groups living in the vicinity of waste management sites and production sites |
Comp |
M |
|
|
Most relevant indicator and calculation method to be identified. Links to well-being and environmental justice. |
1.1 Measures supporting circular business models and encouraging reuse, repair, remanufacturing (incl. industrial ecology/ symbiosis & sharing models) |
Taxes & government support for circular business models |
Core |
H |
M |
OECD, Eurostat, WP3 Core |
Most relevant core indicator and calculation method to be identified. Requires a definition of circular business models in the context of tax systems.
CE relevant subsidies and other government support (including tax reliefs and exemptions) to be identified. Measurement boundaries to be specified.
Could be derived from accounts on 'Environmental subsidies and similar transfers' building on the SEEA (e.g. Eurostat), from inventories of government support, from databases on policy instruments (e.g. OECD PINE database) and from environmentally related tax revenue accounts building on the SEEA and other tax revenue accounts. |
‒ VAT relief and tax credits for refurbished/repaired items
‒ Tax benefits for businesses for the purchase/use of repaired, refurbished, remanufactured items
‒ Trade tariffs: Import/export taxes for re-used & refurbished equipment compared to taxes on new equipment
‒ Subsidies and other transfers supporting a CE |
|
Comp |
H |
L |
EU MF, WP3 Core |
CPP could be a core indicator. GPP to be considered as a proxy. Links to SDG 12.7.1: Degree of sustainable public procurement policies and action plan implementation. PP accounts for a large share of consumption and can drive the circular economy transition and innovation. |
|
Comp |
H |
L |
|
Most relevant indicator, data sources and calculation methods to be identified.
To be read with information on % of population with access to circularity options (e.g. repair services) |
|
Ctx |
H |
L |
|
To be complemented with information on the proportion of population with access to waste management services. |
1.2 Measures encouraging eco-design |
Design for extending lifespans (i.e. durability, repairability, upgradeability):
-
Requirements for minimum lifespan, warranties, software upgrades
-
Requirements for accessibility to spare parts
|
Comp |
H |
M |
|
Most relevant indicator and calculation methods to be identified. It remains to be seen whether this topic can be measured in the form of an indicator or whether it should be qualified as “other relevant information to be considered”. |
Design for recycling, dismantling & material circularity:
-
Bans/Guidelines on hazardous substances
-
Taxes on difficult-to-recycle items
-
Availability of guidance documents on design for recycling
|
Comp |
H |
M |
|
Most relevant indicator and calculation methods to be identified. It remains to be seen whether this topic can be measured in the form of an indicator or whether it should be qualified as “other relevant information to be considered”. |
1.3 Measures encouraging efficient use of materials and economically efficient waste recovery |
|
Comp |
H |
M |
|
Could be expanded to cover economic instruments encouraging linearity. |
Extended Producer Responsibility (EPR) schemes:
|
Comp |
M |
M |
|
Product sectors could include: automobiles, batteries, tyres, packaging, pharmaceuticals, textiles, etc. |
Distance could be zero if legally binding performance target is not available.
Could be used as a core indicator by countries. |
Deposit-refund systems (DRS) & Pay-as-you-throw (PAYT) schemes:
-
Availability of DRS in different product sectors (scope of beverage containers, for reuse & recycling)
-
Availability of PAYT schemes
|
Comp |
M |
H/M |
|
Best way to calculate and present these indicators to be identified.
To be complemented with stringency indicators e.g. the disposal cost difference between different waste types.
Could be qualified as “other relevant information to be considered”. |
2.1 Measures to improve waste management |
Investments in waste management infrastructure, waste collection and sorting: government, businesses |
Core |
H |
M |
EU MF; WP3 Core |
To be derived from environmental expenditure accounts (SEEA). If data availability permits, could be expanded with information on investments in (i) repair, reuse & waste prevention infrastructure; (ii) energy recovery of waste; (iii) sound disposal of waste |
|
Ctx |
M |
H |
|
Important information for countries confronted with basic waste management issues.
To be complemented with information on the proportion of population with access to circularity options (i.e. recycling, composting, repair services, etc.) |
2.2. Measures to encourage waste reduction |
|
Comp |
H |
H |
|
Best way to calculate these indicators to be identified. |
|
Comp |
H |
H |
|
Could be derived from the OECD PINE database. Important indicator for countries with waste management challenges. |
|
Comp |
H |
H |
|
Important indicator for countries with waste management challenges. |
4.1 Targets & distance to targets |
Placeholder: Distance to targets |
Comp |
|
|
|
Most relevant indicators to be identified. Indicators on targets take on their full meaning when linked to associated material life cycle indicators (“waste generation” & “recycling” indicators) and when revealing how distance to targets changes over time; they are particularly relevant when used in a national context. Interpretation needs to consider that targets vary across countries and depend on national circumstances and levels of ambition. Could be core indicators for countries. N.B. Monitoring recycled content targets and reuse targets is challenging. To be applied to selected products (plastics, food, packaging, …). |
‒ Resource productivity targets |
Comp |
H |
H |
WP3 Core |
‒ Recycled content targets, by type of product |
Comp |
H |
M/L |
‒ Recycling targets, by type of waste |
Comp |
H |
H |
‒ Reuse targets, by type of product |
Comp |
H |
L |
‒ Waste reduction/prevention targets by waste type |
Comp |
H |
H |
‒ Landfill targets, distance to targets by waste type |
Comp |
M |
H |
Important indicator for countries with waste management challenges. |
4.2 CE strategies & plans |
Placeholder |
Comp |
M |
|
|
Most relevant indicator and calculation method to be identified. It remains to be seen whether this topic can be measured in the form of an indicator or whether it should be qualified as “other relevant information to be considered”. Plans and strategies to be considered include those fostering a CE, industrial upgrading, competitiveness and productivity, innovation. |
1.1 CE entrepreneurship, goods & services (incl. uptake of new circular business models, industrial ecology/symbiosis initiatives) |
Gross value added of CE sectors (% contribution to GDP and change over time) |
Core |
H |
H/L |
EU MF; WP3 Core |
Reflects the contribution of a circular economy to the creation of growth. To be derived from national accounts or Environmental goods and services sector (SEEA). Trend in indicator value is more important than absolute values. Data availability is best for CE sectors delineated as waste and recycling. Should be expanded to include repair services and second-hand markets as data availability progresses. Could be complemented with information on power production from renewable sources (cf SDG 7.b.1/12.a.1 and WP3 Core) |
|
Comp |
M |
L |
|
Indicators to be defined. Data sources to be identified. |
1.2 Employment markets and jobs |
Jobs in CE sectors (proportion in total employment and change over time) |
Core |
H |
H/L |
EU MF, WP3 Core |
Reflects the contribution of a circular economy to the creation of jobs. Trend in indicator value is more important than absolute values. Requires a consensus on the measurement boundaries (sectors and job types to be covered).
To be derived from accounts on the environmental goods and services sector (EGSS) available in EU countries. CE sectors delineated as waste and recycling. To be expanded as data availability progresses to include other CE activities, including repair services, second-hand markets and sharing economy. (cf also the EU taxonomy of sustainable activities). |
Jobs in sharing economy, reuse and repair activities (number and change over time) |
Comp |
H |
L |
|
Complements the core indicator by providing additional detail on the sharing economy, repair and reuse activities. Trend in indicator value is more important than absolute values.
Data on repair activities may be more available than data on jobs in the sharing economy or in reuse services. Alternative data sources are needed. |
1.3 Recycling markets |
Markets for recycled materials |
Comp |
H |
L |
|
Indicator to be defined. To focus on materials of particular importance from an environmental and economic point of view (e.g. construction, plastics, metals) |
2.1 Trade in CE related goods and services |
|
Comp |
M |
M/L |
|
Trade in recovered, recycled and recyclable materials reflects the importance of the domestic market and global participation in a circular economy. Requires a common definition of “recyclable” materials. “Recyclability” is challenging to define. Technical and economic factors play a role. To be read with “interactions with trade” under “material life cycle” above. To be expanded to a broader set of CE-related goods and services as data availability progresses. |
|
Comp |
M |
M/L |
OECD MFRP |
|
Comp |
M |
L |
EU MF |
2.2 Supply security |
Domestic material autonomy: aggregate, by material group
a. proportion of domestic extraction in DMI or DMC
b. proportion of domestic extraction in RMI or RMC
|
Comp |
H |
H |
OECD MFRP, EU MF, WP3 Core |
Double-headed indicator. To be read with “interactions with trade” under “material life cycle”.
Material autonomy can in some countries be an important driver for moving towards a CE. A CE can create opportunities for reducing reliance on external markets and increasing the resilience to imports of critical raw materials which is especially of concern for resource importing countries.2 Could otherwise be qualified as a contextual indicator. |
|
Comp |
H |
M |
OECD MFRP, EU MF |
A CE helps address the supply risks for raw materials, in particular “strategic” materials (raw and processed or semi-processed). Materials to be considered may vary across countries and regions. Could be a core indicator if common strategic raw materials are identified. What to classify as “strategic” materials needs to be specified. Needs to consider economic & environmental factors. Different methodologies exist to assess material criticality (e.g. (Coulomb et al., 2015[35]; Graedel et al., 2012[36])). See also (European Commission, 2024[37]) |
-
Food security
-
Energy security
|
Comp |
H |
M |
|
A CE helps also satisfy human consumption needs and address supply risks. Both food and energy could be considered as strategic materials (see above). |