Nature Finance: Bridging Natural and Financial Capital Through Robust Impact Measurement
Abstract
1. Introduction
2. Biodiversity Finance: Definition and Key Metrics
“Biodiversity is an attribute of an area and specifically refers to the variety within and among living organisms, assemblages of living organisms, biotic communities, and biotic processes, whether naturally occurring or modified by humans. Biodiversity can be measured in terms of genetic diversity and the identity and number of different types of species, assemblages of species, biotic communities, and biotic processes, and the amount (e.g., abundance, biomass, cover, rate) and structure of each. It can be observed and measured at any spatial scale ranging from microsites and habitat patches to the entire biosphere.”
- The conservation of biological diversity (genetic diversity, species diversity and habitat diversity).
- The sustainable use of biological diversity.
- The fair and equitable sharing of the benefits arising out of the utilization of genetic resources (CBD 1993).
2.1. Methodology
2.2. Biodiversity Finance: Literature Review
2.3. Recommended Biodiversity Metrics in the Scientific Literature
- Mean Species Abundance (MSA): The metric measures the intactness of local biodiversity in a given area. MSA focuses on measuring ecosystem functioning. The index compares the abundance of individual species under a specific pressure indicator to an undisturbed reference situation (GLOBIO n.d.; Damiani et al. 2023). MSA measures the relative abundance of native species. A score of 1 indicates a fully intact species assemblage, while a score of 0 implies the local extinction of all original species. More precisely, an area with an MSA of 0 percent has completely lost its native biodiversity (or is exclusively colonized by invasive species), whereas one with an MSA of 100 percent is considered equal in biodiversity to an ecosystem undisturbed by human activities and pressures.
- Potentially Disappeared Fraction of Species (PDF): The PDF presents a footprint metric based on a Life Cycle Assessment for biodiversity, highlighting the potential species loss caused by various impacts like land occupation, anthropogenic activities, climate change, and other impact drivers. It does not quantify final extinction but rather assesses the potential influence on species, considering that footprint changes are typically modest compared to global extinction drivers (Biodiversity Metrics n.d.).
- Living Planet Index (LPI): The World Wildlife Fund employs the Living Planet Index to track the pace of species extinction. It was adopted during the Convention on Biological Diversity and measures biological diversity based on population trends of vertebrate species from terrestrial, freshwater, and marine habitats. The organization utilizes a global dataset measuring the evolution of 5268 species and 38,427 populations. The index is based on trends from thousands of population time series collected from monitored sites around the world, measuring the increase or decrease in population and species diversity, which is essential to quantifying biodiversity loss (WWF n.d.).
- Range Size Rarity (RSR): This approach evaluates the impacts of small-scale impacts on local ecosystem ranges and species population development. The index divides species into grid cell and includes weights that reflect species’ range sizes, calculating the species range extent. It focuses on assessing changes relative to the local system, rather than national or global extinction levels (Voskamp et al. 2023).
- Species Threat Abatement and Recovery (STAR): The STAR metric assesses the impact of financial investments on mitigating the risk of species extinction and reversing biodiversity loss in a given environment. It identifies initiatives that yield benefits for threatened species and proposes actions towards threat abatement and habitat restoration, ultimately leading to safeguarding diversity in an ecosystem. Hereby, it helps various public and private stakeholders’ direct investments and efforts toward achieving conservation goals and aligning with environmental policy objectives (IUCN n.d.).
There is no shortage of targets and indicators that measure biodiversity that are being used or proposed. However, many of these are difficult for companies to apply at a local level or to aggregate over all of their operations and value chains. Businesses require metrics which are credible, practical to use, easy to understand and relevant to their industry.
3. Biodiversity Finance: Analyzing a Unique Dataset from Capital Markets
3.1. Which Biodiversity Metrics Are Actually Used in Biodiversity Funds?
3.2. Which Biodiversity Metrics Are Actually Used in Bond Markets
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- Demarcated indigenous areas (ha);
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- Number of environmental inspection actions carried out annually;
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- Number of financed bio-inputs and biofertilizer production units;
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- Tract of land regularized (ha);
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- Wildfires (Number of hired fire brigades);
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- Number of rural properties compliant with the forestry code.
3.3. Discussion on the Nature Metrics Used in Liquid and Illiquid Markets
4. Conclusions: The Path Forward for Biodiversity Finance
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
Appendix A
| Additional production per hectare (t/ha·y) |
| Ambient noise reduction (in decibels and % of baseline) |
| Amount spent on and insured by parametric insurance schemes for green/blue infrastructure (in $) |
| Annual absolute (gross) waste collected and treated (including composted) (in t/y and % of total waste; increase in %) |
| Area afforested with native or naturalized species (in ha and % of total area; increase in %) |
| Area covered by native or naturalized seed varieties (in ha and % of total area; increase in %) |
| Area covered by nature-based solution (in ha and % of total area under land management practices and/or infrastructure area; increase in %) |
| Area covered by services for restoration of natural habitats (in ha and % of total area; increase in %) |
| Area covered by sustainable land and water resources management practices (in ha and % of total area; increase in %) |
| Area covered by technologies that improve land-use and agricultural practices (in ha and % of total area; increase in %) |
| Area cultivated by precision agriculture (in ha and % of acreage farmed; increase in %) |
| Area cultivated with drought-resistant seeds (in ha and % of acreage farmed; increase in %) |
| Area cultivated with more resilient native or naturalized species (in ha and % of acreage farmed; increase in %) |
| Area of coral reefs covered by parametric insurance schemes for green/blue infrastructure (in ha) |
| Area of coral reefs created, rehabilitated, or restored (in ha and % of total area; increase in %) |
| Area of coral reefs under conservation practices or recognized as legally protected (in ha and % of total area; increase in %) |
| Area of land restored or rehabilitated (in ha and % of total area; increase in %) |
| Area of land under conservation practices (above legislation requirements) or recognized as legally protected (in ha and % of total area; increase in %) |
| Area of mangroves created, rehabilitated, or restored (in ha and % of total area; increase in %) |
| Area of mangroves under conservation practices or recognized as legally protected (in ha and % of total area; increase in %) |
| Area of natural forest regenerated (in ha and % of total area; increase in %) |
| Area of wetlands created, rehabilitated, or restored (in ha and % of total area; increase in %) |
| Area of wetlands under conservation practices or recognized as legally protected (in ha and % of total area; increase in %) |
| Area reforested with native or naturalized species (in ha and % of total area; increase in %) |
| Area under certified organic or sustainable agriculture (in ha and % of acreage farmed; increase in %) |
| Area under certified sustainable forest management (in ha and % of total area; increase in %) |
| Area under diverse cropping systems (in ha and % of total area farmed; increase in %) |
| Area under monitoring for biodiversity protection (in ha; increase in %) |
| Area under public-private partnership set aside for conservation (in buffer zones of protected areas) (in ha and % of total; increase in %) |
| Area under REDD+ ventures (in ha and % of total; increase in %) |
| Area under soil conservation/regenerative agricultural practices, including increased cover crop coverage, complex crop rotation, crop diversity practices, maintaining living roots/permanent soil coverage, and/or crop and livestock integration (in ha and % of acreage farmed; increase in %) |
| Area under wildlife- friendly management practices (in ha and % of acreage farmed; increase in %) |
| Area with climate adaptation resilience measure implemented (in ha and % of total area; increase in %) |
| Avoided amount of plastic used (in t/y and % of total; increase in %) |
| Avoided and/or sequestered GHG emissions (tCO2e/y) |
| Avoided fishery loss (in t/y; increase in %) |
| Avoided plastic and/or solid waste runoff to freshwater and marine habitats (in t/y; increase in %) |
| Biodegradable fishing gear (in t and % of total gear; increase in %) |
| Biodiversity credits generated, with description of type and environmental asset behind (in number and $) |
| Capacity of ballast water treatment (in m3/s; increase in %) |
| Capacity of bilge water treatment (in m3/s; increase in %) |
| Capacity of cold storage (in t/y; increase in %) |
| Capacity of membrane bioreactor-type water treatment (in m3/s; increase in %) |
| Capacity of storage or facility (in t/y; increase in %) |
| Capacity of the nature-based structure (in m3/s or m3 and % of total capacity if combined with gray infrastructure; increase in %) |
| Carbon credits generated, with description of type and environmental asset behind (in number and $) |
| Certified sustainable seafood products produced/traded/retailed (in t/y and % of total; increase in %) |
| Changes in the CO2, nutrient, and/or pH levels for coral reefs (in %) |
| Compostable and/or biodegradable products manufactured/traded/retailed (in t/y and % of total; increase in %) |
| Conservation workers (for example, game wardens, rangers, and natural park officials) trained in biodiversity conservation (number and % of workforce; increase in %) |
| Conversion of agricultural land to more diverse cropping systems (for example, agroforestry) (in ha and % of acreage farmed) |
| Description of biodiversity significance and main species included |
| Description of key species using the wildlife crossings/corridors created |
| Description of type of natural or ecological infrastructure used |
| Description of types of technologies adopted |
| Distinct crops/plant families farmed (in number/ha) |
| Enabled ecosystem services (for example, water recharge in m3/y) |
| Farmland covered by native species with low water consumption (in ha and % of acreage farmed; increase in %) |
| Farmland covered by new or rehabilitated efficient irrigation (in ha and % of acreage farmed; increase in %) |
| Farmland covered by sustainable agricultural practices/varieties/technology and/or infrastructure that increases crop yields/quality on existing land without increasing the environmental footprint (in ha and % of acreage farmed; increase in %) |
| Feedstock/feed supply chain certification coverage (% of total feedstock/feed volume; increase in %) |
| Fisheries by-catch (in t/y and % of total catch; reduction in %) |
| Fishery production covered by parametric insurance schemes for green/blue infrastructure (in t/y; increase in %) |
| Forestry personnel trained in biodiversity conservation (in number and % of workforce; increase in %) |
| Improvement in the Species Threat Abatement and Restoration (STAR) score |
| Improvements in site-specific physical, chemical, and/or biological indicators of soil quality |
| Improvements in water quality indicators |
| Increase in area under integrated pest management (in ha and % of acreage farmed) |
| Increase in plastic materials reused or repurposed (as absolute amount and % of the total material of the project) |
| Increase in species richness and relative abundance of priority biodiversity species (in number) |
| Increase in the biotope area factor (in number and %) |
| Increase in the Ecosystem Integrity Index |
| Increase in the Ecosystem Integrity Index |
| Increase in the Forest Landscape Integrity Index |
| Increase in the share of circular materials used as a % of the total material use of the project (in %) |
| Increase in the share of revenues generated or share of nutrients sold from plant-based products as beef alternatives (in %) |
| Increase in water recycled and/or reused per hectare or per tonne of production (in m3/ha·y or m3/t·y and %) |
| Increase of afforested production buffer area (in ha and % of total area) |
| Investment in mechanisms and conservation trust funds that support payment for ecosystem services (in $; increase in %) |
| Investment in research and innovative technology related to biodiversity (in $; increase in %) |
| Investment in research and innovative technology related to recycling plastics (in $; increase in %) |
| Investment in technologies to avoid transportation of invasive species (in $; increase in %) |
| Length of coastal area covered by parametric insurance schemes for green/blue infrastructure (in km; increase in %) |
| Low-carbon and/or biodegradable fibers manufactured/traded/retailed (in t/y and % of total; increase in %) |
| Low-impact fishing gear by type of catch (in % of operations covered; increase in %) |
| Marine and/or terrestrial vehicles retrofitted to avoid transportation of invasive species (in number; increase in %) |
| Marine area rehabilitated or restored (in ha and % of total area; increase in %) |
| Marine area under conservation practices or recognized as legally protected (in ha and % of total area; increase in %) |
| Native non-timber products in the project (in absolute number; increase in %) |
| Native or naturalized seed varieties conserved/produced (in absolute number and t/y; increase in %) |
| Number of measures adopted to reduce temperatures of used water discharged |
| Number of native species integrated in green/blue urban infrastructure |
| Number of wetlands created, financed, rehabilitated, restored, or under conservation practices (in number; increase in %) |
| Nutrient credits generated, with description of type (in number and $) |
| On-farm compost produced and applied to farmland (in t/y; increase in %) |
| Payment for ecosystem services (description and amount in $; increase in %) |
| People and/or enterprises (such as companies or farms) benefiting from measures to mitigate the consequences of floods (in number; increase in %) |
| People and/or enterprises (such as companies or farms) benefiting from measures to mitigate the consequences of floods and droughts (in number; increase in %) |
| People and/or enterprises (such as companies or farms) benefiting from parametric insurance schemes for green/blue infrastructure (in number; increase in %) |
| People from local communities employed (in number and % of workforce; increase in %) |
| People/households benefiting from sanitation (in number; increase in %) |
| People/households benefiting from wastewater treatment (in number; increase in %) |
| Plastic waste that is prevented, minimized, repurposed, reused, or recycled (in t/y and % of total waste; increase in %) |
| Private landowners participating in the public-private partnership mechanism (in number; increase in %) |
| Processing capacity of the plastic recycling facility (in t/y; increase in %) |
| Product water flow rate compared with standard water flow rate (in liters per minute and % of reduction) |
| Production covered by organic or sustainable agriculture certification (in t/y and % of total production; increase in %) |
| Production covered by regenerative agriculture certification (in t/y and % of total production; increase in %) |
| Production covered by regenerative aquaculture certification (in t/y and % of total production; increase in %) |
| Production covered by sustainable aquaculture certification (in t/y and % of total production; increase in %) |
| Production covered by sustainable fishery certification (in t/y and % of total; increase in %) |
| Production of native non-timber forest products (in t/y and % of total; increase in %) |
| Production of sustainable wood and wood products (in t/y and % of total production; increase in %) |
| Production/retail covered by an internationally recognized eco-label, eco-efficiency, or other relevant environmental certification (in t/y and % of total; increase in %) |
| Production/supply covered by traceability mechanisms, data, and technologies (in t/y and % of total production/supply; increase in %) |
| Products awarded an internationally recognized eco-label, eco-efficiency, or other relevant environmental certification (in number; increase in %) |
| Products produced from recycled plastic (in number of different products and in t/y of each type) |
| Rainwater capture capacity of the structure (in m3/y; increase in %) |
| Reduction in antibiotic use (in % of the total used) |
| Reduction in flood damage costs (in $ and %) |
| Reduction in land loss from inundation and/or coastal erosion (in ha) |
| Reduction in operating days lost to floods (in number) |
| Reduction in pesticide use (in kg/ha and % of total pesticide used) |
| Reduction in repair costs due to storms (to all kinds of infrastructure and assets) (in $ and %) |
| Reduction in synthetic fertilizer in total fertilizer used (in %) |
| Reduction in synthetic fertilizer use intensity (in kg/ha) |
| Reduction in temperatures of used water discharged (in °C and %) |
| Reduction in the annual absolute (gross) water use (in m3/y and %) |
| Reduction in the annual absolute (gross) water use per hectare or per tonne of production (in m3/ha·y or m3/t·y and %) |
| Reduction in the number of wildfires and/or in the area damaged by wildfires (in number and/or ha) |
| Reduction or removal of harmful substances (persistent, carcinogenic, mutagenic, reprotoxic) used (in % in comparison to the original design and/or in t/y) |
| Road, rail, or other infrastructure retrofitted (in km; increase in %) |
| Share of annual revenues derived from tools and services enabling traceability (in %; increase in %) |
| Share of annual revenues derived from water conservation products for residential and commercial use (in %; increase in %) |
| Share of business/assets covered by certification (in %; increase in %) |
| Share of business/assets covered by sustainable tourism or eco-tourism certification (in %; increase in %) |
| Share of fleet with noise reduction technology (in %; increase in %) |
| Share of revenues directly contributing to conservation and/or supporting local communities (in %; increase in %) |
| Share of solar panels with cooling system totally based on nature-based solutions (in %; increase in %) |
| Share of sustainable material (such as timber and bamboo) used as construction material (in %) |
| Species under monitoring (in number; increase in %) |
| Sustainable seafood production of bivalves and seaweed (in t/y; increase in %) |
| Technologies deployed in operations to avoid the transportation of invasive species (description and number) |
| Technologies related to biodiversity developed and demonstrated (in number; increase in %) |
| Technologies related to recycling plastics developed and demonstrated (in number; increase in %) |
| Used water discharged with reduced temperature (in m3/y; increase in %) |
| Vessels with ballast water treatment systems installed (in number and % of fleet; increase in %) |
| Vessels with bilge water treatment systems installed (in number and % of fleet; increase in %) |
| Vessels with by-catch exclusion devices and other fishing gear modification programs (in number and % of fleet; increase in %) |
| Vessels with membrane bioreactor-type water treatment systems installed (in number and % of fleet; increase in %) |
| Vessels with navigation systems that include biodiversity-protection technology (in number and % of fleet; increase in %) |
| Waste that is prevented, minimized, repurposed, reused, or recycled (in t/y and % of total waste; increase in %) |
| Wastewater treatment capacity of the structure (in m3/y; increase in %) |
| Water conservation products developed/manufactured (in number; increase in %) |
| Water recycled and/or reused per hectare or per tonne of production (in m3/ha·y or m3/t·y; increase in %) |
| Water treated, reused, or recycled (in m3/y; increase in %) |
| Wetlands created, financed, rehabilitated, restored, or under conservation practices (in number; increase in %) |
| Wildlife crossings/corridors created (in number and ha; increase in %) |
| Issuer | Date of Issuance | Metric | Mapping (Corresponding Metric in IFC Catalog) |
|---|---|---|---|
| Amaggi | Dec-2020 | Number of researches and implementations of innovative agricultural | Farmland covered by sustainable agricultural practices/varieties/technology and/or infrastructure that increases crop yields/quality on existing land without increasing the environmental footprint (in ha and % of acreage farmed; increase in %) |
| Amaggi | Dec-2020 | Area monitored and registered at ORIGINAR system (hectares) | Product water flow rate compared with standard water flow rate (in liters per minute and % of reduction) |
| Amaggi | Dec-2020 | Sustainable agriculture (production on new farms) | Production covered by organic or sustainable agriculture certification (in t/y and % of total production; increase in %) |
| Amaggi | Dec-2020 | Traceability of direct suppliers in the priority jurisdictions (%) | Production/supply covered by traceability mechanisms, data, and technologies (in t/y and % of total production/supply; increase in %) |
| Ambipar | Jan-2024 | Increased proportion of circular materials produced. | Increase in the share of circular materials used as a % of the total material use of the project (in %) |
| Brasil | Sep-2023 | Reforested area (ha) | Area afforested with native or naturalized species (in ha and % of total area; increase in %) |
| Brasil | Sep-2023 | Area of planted forests | Area covered by native or naturalized seed varieties (in ha and % of total area; increase in %) |
| Brasil | Sep-2023 | Area under natural regeneration | Area of natural forest regenerated (in ha and % of total area; increase in %) |
| Brasil | Sep-2023 | Projects/initiatives supported by the Program “ABC” that guarantee the preservation, management and sustainable use of natural resources, recovery of endemic species | Area under certified organic or sustainable agriculture (in ha and % of acreage farmed; increase in %) |
| Brasil | Sep-2023 | Area of adoption of Crop-Livestock-Forest Integration (iLPF) | Conservation workers (for example, game wardens, rangers, and natural park officials) trained in biodiversity conservation (number and % of workforce; increase in %) |
| Brasil | Sep-2023 | Area of adoption of irrigated systems | Farmland covered by native species with low water consumption (in ha and % of acreage farmed; increase in %) |
| Brasil | Sep-2023 | Disaster risk management (actions to raise roads and infrastructure) | Reduction in flood damage costs (in $ and %) |
| Brasil | Sep-2023 | Disaster risk management (reduce land loss and coastal erosion in km2) | Reduction in operating days lost to floods (in number) |
| Brasil | Sep-2023 | Clean transportation. Railways | Road, rail, or other infrastructure retrofitted (in km; increase in %) |
| Brasil | Sep-2023 | Number of species monitored | Species under monitoring (in number; increase in %) |
| Brasil | Sep-2023 | Volume of effluents treated annually and proportion relative to total | Wastewater treatment capacity of the structure (in m3/y; increase in %) |
| Brasil | Sep-2023 | Number of sponsored projects related to waterbodies protection | Wetlands created, financed, rehabilitated, restored, or under conservation practices (in number; increase in %) |
| BRF | 2016 | Forests with sustainable management (hectares) | Area covered by sustainable land and water resources management practices (in ha and % of total area; increase in %) |
| BRF | 2016 | Packaging materials consumption reduced (t) | Plastic waste that is prevented, minimized, repurposed, reused, or recycled (in t/y and % of total waste; increase in %) |
| BTG Pactual | Oct-2020 | Number of people provided access to improved sanitation facilities | People/households benefiting from sanitation (in number; increase in %) |
| Klabin | Aug-2017 | Forest Productivity (m3/ha/year) | Area covered by technologies that improve land-use and agricultural practices (in ha and % of total area; increase in %) |
| Klabin | Aug-2017 | Effectiveness of adaptation actions, where feasible | Area with climate adaptation resilience measure implemented (in ha and % of total area; increase in %) |
| Klabin | 30-Aug-2017 | Water consumption reduced/avoided (m3 or m3/adt) | Water recycled and/or reused per hectare or per tonne of production (in m3/ha·y or m3/t·y; increase in %) |
| Klabin | 30-Aug-2017 | Water consumption (m3 or m3/adt) | Water treated, reused, or recycled (in m3/y; increase in %) |
| LDC | Sep-2024 | Area with restoration in progress (Number of trees/seedlings/shrubs planted and/or bought from certified forests) | Area of land restored or rehabilitated (in ha and % of total area; increase in %) |
| LDC | Sep-2024 | Reduction in the number of wildfires, and/or in the area damaged by wildfires in km2 | Reduction in the number of wildfires and/or in the area damaged by wildfires (in number and/or ha) |
| LDC | Sep-2024 | Wastewater avoided, reused or minimized at source | Waste that is prevented, minimized, repurposed, reused, or recycled (in t/y and % of total waste; increase in %) |
| Natura | Apr-2021 | PCR plastic used in plastic packaging (%) | Avoided amount of plastic used (in t/y and % of total; increase in %) |
| Raizen | Sep-2024 | Certification of biofuel (suppliers that are certified Elos, Bonsucro, or equivalent) | Feedstock/feed supply chain certification coverage (% of total feedstock/feed volume; increase in %) |
| Suzano | Jun-2016 | Number of HCV areas identified and maintained | Area of land under conservation practices (above legislation requirements) or recognized as legally protected (in ha and % of total area; increase in %) |
| Suzano | Jun-2016 | Tons of fossil fuel saved/reduced | Avoided and/or sequestered GHG emissions (tCO2e/y) |
| Suzano | Jun-2016 | Number of research studies developed at Parque das Neblinas | Description of biodiversity significance and main species included |
| Suzano | Jun-2016 | Number of ecotourists at Parque das Neblinas | Share of business/assets covered by sustainable tourism or eco-tourism certification (in %; increase in %) |
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| Biodiversity Strata | Quality Dimensions | Quantity Dimensions | Ecosystem Services (Example) |
|---|---|---|---|
| Ecosystem level | Variety | Extent |
|
| Species level | Diversity | Abundance |
|
| Genetic level | Variability | Population |
|
| # | Search Term | Definition | Total Numbers |
|---|---|---|---|
| 1 | Ecosystem Service | Ecosystem services are the various direct and indirect benefits offered by ecosystems that are advantageous to humans and are primarily recognized as a method to assign value to nature. | 81,884 |
| 2 | Nature-Based Solutions | Nature-based Solutions involve actions to protect, manage, and restore ecosystems, through natural processes and restoration practices, while tackling socio-environmental issues. | 52,282 |
| 3 | Circular Economy | A model of production and consumption, which involves sharing, leasing, reusing, repairing, refurbishing and recycling existing materials and products as long as possible to extend the life cycle of a product and reducing waste. | 33,425 |
| 4 | Ecological Resilience | System’s ability to experience disturbance, reorganize, and retain its fundamental functions, structures, and controls without transitioning to a different region or schema. | 17,025 |
| 5 | Natural Capital | Natural assets supply raw materials and environmental services, essential for economic production. Natural capital encompasses land, minerals, water, living organisms, and the services arising from the interactions of these elements within ecological systems. | 14,068 |
| 6 | Biodiversity Hotspots | Regions characterized by elevated species diversity, numerous endemic species, and a notable presence of threatened or endangered species, pinpointing areas with a high conservation priority. | 12,722 |
| 7 | Carbon Offsets | A measure designed to compensate and offset CO2 resulting from industrial or human activities. | 11,473 |
| 8 | Reforestation | Conversion of previously forested land back to a forest ecosystem, as practice of ecological restoration with economic and ecological benefits. | 9001 |
| 9 | ESG (environmental, social, governance) | ESG represents the consideration of environmental, social, and corporate governance issues by companies and investors. It involves non-financial metrics influencing corporate conduct and addresses different externalities which are not covered by traditional measures. | 6556 |
| 10 | Payment for Ecosystem Services | Effective methods and mechanisms for matching the demand for environmental services with incentives for land users whose actions modify the supply of those environmental services. | 3698 |
| 11 | Biodiversity Offsets | An effort aimed at offsetting the biodiversity depletion caused by human activities Examples include incentives for the restoration of wetlands, safeguarding habitats of endangered species, or establishing wildlife corridors. | 1743 |
| 12 | Rewilding | Practice involving the long-term goal of naturally preserving or enhancing biodiversity while mitigating the effects of historical and current human interventions. It involves allowing nature to self-regulate through enabling natural processes and rejuvenating degraded landscapes. Rewilding supports natural rhythms of wildlife to establish wilder and more biodiverse habitats. | 1146 |
| 13 | Biodiversity Finance | The practice of raising capital and managing funds for biodiversity conservation, achieving the necessary changes to counteract the decline in biodiversity and ecosystem services through financial activities. | 894 |
| 14 | Biodiversity Certification | Certification to ensure that specific sustainable ecological practices with focus on biodiversity have been included in the manufacturing process of a particular product or service. | 888 |
| 15 | Nature Positive | Describing the reverse of nature-loss and conserving natural habitat and increasing biodiversity to achieve full natural recovery by 2050 with 2020 as baseline. | 163 |
| Total | 246,968 |
| &GREEN FUND Food and Agriculture | Transforms global commodity supply chains through deforestation-free and biodiversity-positive investments in food and agricultural projects. Partner of the United Nations Environment Program and supported by a number of public and private investors, including its anchor investment from the Norwegian International Climate and Forest Initiative (NICFI). |
| Impact |
|
| Governance |
|
| Framework |
|
| Supporting documents | “Annual Reports—&Green.” &Green, 12 September 2023, www.andgreen.fund/annual-reports/#annual-reports, (accessed on 20 September 2025). “The &Green Fund—&Green.” &Green, 31 August 2023, www.andgreen.fund (accessed on 25 October 2025). “&Green Technical Assistance Facility—IDH—the Sustainable Trade Initiative.” IDH—the Sustainable Trade Initiative, 1 November 2021, www.idhsustainabletrade.com/landscapes/the-green-technical-assistance-facility (accessed on 25 October 2025). “Countries Search for Financing to Counter Biodiversity Crisis.” UNEP, www.unep.org/news-and-stories/story/countries-search-financing-counter-biodiversity-crisis. (accessed on 20 September 2025) |
| AGRI3 Fund Agriculture | Offers credit enhancement and technical assistance to projects and businesses involved in forest protection, sustainable agriculture, and rural livelihoods. Provides credit guarantees to financial institutions supporting eligible initiatives and has a Technical Assistance Facility managed by IDH, The Sustainable Trade Initiative, for on-the-ground project implementation. |
| Impact |
|
| Governance |
|
| Framework |
|
| Supporting documents | Policies—AGRI3 Fund. https://agri3.com/policies/ (accessed on 25 October 2025). “AGRI3 Fund—IDH—the Sustainable Trade Initiative.” IDH—the Sustainable Trade Initiative, 16 February 2021, www.idhsustainabletrade.com/landscapes/agri3-fund (accessed on 25 October 2025). |
| Eco.business Fund Agriculture, Forest, Fishery | Supports business and consumption practices that support the conservation of biodiversity, sustainable utilization of natural resources, and effective mitigation of climate change while adapting to its impacts. Maximizes its impact and reach by introducing blended finance through two distinct sub-funds, one dedicated to Latin America/Caribbean and the other to sub-Saharan Africa. It sources its capital from a foundation of public investors and donors as a risk buffer, enabling the mobilization of private institutional investors. |
| Impact |
|
| Governance |
|
| Framework |
|
| Supporting documents | Eco.Business Fund. www.ecobusiness.fund/en (accessed on 25 October 2025). Eco.business Fund Impact Report 2024. https://www.ecobusiness.fund/en/impact (accessed on 25 October 2025) Theory of Change |
| Global Fund for Coral Reefs Ocean, Coastline | Combines public and private funding to tackle localized factors contributing to coral reef deterioration, including pollution management, sustainable aquaculture and agriculture, ecotourism ventures, and the establishment of financially sustainable Marine Protected Areas. Over the past year, GFCR has expanded its initiatives to deploy reef-positive solutions in twelve coral nations, raising over $30 million USD, introducing a knowledge acceleration platform, and amplifying global awareness about the critical need to scale innovations for coral reefs. Promotes a “protect-transform-restore-recover” impact approach by protecting existing coral reefs, restoring degraded reefs, and recovering coral populations. |
| Impact |
|
| Governance |
|
| Framework |
|
| Supporting documents | Global Fund Coral Reefs—About. www.globalfundcoralreefs.org Global Fund Coral Reefs—Annual Report 2022. www.globalfundcoralreefs.org UNEP. Global Fund for Coral Reefs. https://mptf.undp.org/fund/fcr00 (accessed on 25 October 2025) |
| Althelia Climate Funds Forest | Invests in initiatives against deforestation, climate change, biodiversity loss, unfair livelihoods in rural communities. Facilitates the use of REDD+ carbon credits to promote sustainable land use and protect ecosystems. |
| Impact |
|
| Governance |
|
| Framework |
|
| Supporting documents | Anthelia Climate Fund. Impact Report 2021. www.mirova.com/sites (accessed on 25 October 2025) EU Investment Bank. Althelia Climate Fund. |
| Category | Metrics in Illiquid Markets |
|---|---|
| Sustainable agriculture | Emissions reduced through farm management practices/regrowth/densification of degraded forests in tCO2e |
| Sustainable agriculture | Restored ecosystem resilience through forest protection/regenerative agriculture/agroforestry projects in ha |
| Sustainable agriculture | Increase in agricultural yield through sustainable intensification in ha/year |
| Sustainable agriculture | Promotes avoidance of nutrient load in kg |
| Sustainable agriculture | Promotes agroforestry in ha |
| Sustainable agriculture | Pilot project using eco-acoustic monitoring to assess how agricultural activities affect bird species |
| Sustainable agriculture | Deforestation prevented through sustainable land-use practices in ha |
| Sustainable agriculture | Number of people receiving education/training in sustainability management/agriculture in # |
| Sustainable agriculture | Sustainable land management generates co-benefits for biodiversity by increased habitat maintenance, improved water quality, and enhanced soil health |
| Sustainable agriculture | Farmland under sustainable management in ha |
| Sustainable agriculture | Ecosystems under improved sustainable management and indirect conservation in ha |
| Biodiversity | Biodiversity metrics framework embedded in the fund’s overall Theory of Change |
| Biodiversity | Coral cover in ha |
| Biodiversity | Species abundance in # |
| Biodiversity | Invested financial resources in biodiversity projects in $ |
| Biodiversity | Mobilized capital and funding for biodiversity projects in $ |
| Biodiversity | Number of threatened or endangered species |
| Social | Number of participants reporting increased income in # |
| Social | Jobs created by projects in # |
| Social | Sustainable enterprises supported in # |
| Social | Gender initiatives focusing on female community members engaged in project in # |
| Social | Increased community resilience through land tenure agreements and jobs in # |
| Forest cover | Tropical forest protected and restored following the Net Gain Framework (NGF) in ha |
| Forest cover | Protected area from deforestation in ha |
| Forest cover | Land protected (ha) |
| Forest cover | Amount of deforestation avoided in ha |
| Forest cover | Natural ecosystem under protection/restoration management in ha |
| Carbon | Greenhouse gas emissions reductions in CO2 |
| Carbon | GHG sequestered through restoration of natural ecosystems in t/CO2e |
| Carbon | Carbon storage in tCO2e |
| Water | Water quality in chemical/toxicology metrics |
| Funding | Mobilized funding capital in $ |
| Category | Metrics in Liquid Markets |
|---|---|
| Forest cover | Reforested area (ha) |
| Forest cover | Area of planted forests (ha) |
| Forest cover | Area under natural regeneration (ha) |
| Forest cover | Area with restoration in progress (Number of trees/seedlings/shrubs planted and/or bought from certified forests) |
| Forest cover | Reduction in the number of wildfires, and/or in the area damaged by wildfires (km2) |
| Forest cover | Forests with sustainable management (hectares) |
| Forest cover | Forest Productivity (m3/ha/year) |
| Forest cover | Number of HCV areas identified and maintained |
| Forest cover | Number of research studies developed in protected area (Parque das Neblinas) |
| Forest cover | Number of ecotourists in protected area (Parque das Neblinas) |
| Sustainable agriculture | Number of researches and implementations of innovative agricultural |
| Sustainable agriculture | Area monitored and registered at ORIGINAR system (ha) |
| Sustainable agriculture | Sustainable agriculture (production on new farms) |
| Sustainable agriculture | Traceability of direct suppliers in the priority jurisdictions (%) |
| Sustainable agriculture | Projects/initiatives supported by the Program “ABC” that guarantee the preservation, management and sustainable use of natural resources, recovery of endemic species |
| Sustainable agriculture | Area of adoption of Crop-Livestock-Forest Integration (ILPF) |
| Sustainable agriculture | Area of adoption of irrigated systems (ha) |
| Water & sanitation | Volume of effluents treated annually and proportion relative to total |
| Water & sanitation | Number of sponsored projects related to waterbodies protection |
| Water & sanitation | Number of people provided access to improved sanitation facilities |
| Water & sanitation | Water consumption reduced/avoided (m3 or m3/adt) |
| Water & sanitation | Water consumption (m3 or m3/adt) |
| Water & sanitation | Wastewater avoided, reused or minimized at source |
| Circularity | Increased proportion of circular materials produced |
| Circularity | Packaging materials consumption reduced (t) |
| Circularity | PCR plastic used in plastic packaging (%) |
| Climate adaptation | Disaster risk management (actions to raise roads and infrastructure) |
| Climate adaptation | Disaster risk management (reduce land loss and coastal erosion in km2) |
| Climate adaptation | Effectiveness of adaptation actions, where feasible |
| Renewable energy | Certification of biofuel (suppliers that are certified Elos, Bonsucro, or equivalent) |
| Renewable energy | Fossil fuel saved/reduced (tons) |
| Clean transportation | Clean transportation. Railways |
| Biodiversity | Number of species monitored |
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Sayn-Wittgenstein, F.; de Mariz, F.; Leijonhufvud, C. Nature Finance: Bridging Natural and Financial Capital Through Robust Impact Measurement. Risks 2025, 13, 213. https://doi.org/10.3390/risks13110213
Sayn-Wittgenstein F, de Mariz F, Leijonhufvud C. Nature Finance: Bridging Natural and Financial Capital Through Robust Impact Measurement. Risks. 2025; 13(11):213. https://doi.org/10.3390/risks13110213
Chicago/Turabian StyleSayn-Wittgenstein, Friedrich, Frederic de Mariz, and Christina Leijonhufvud. 2025. "Nature Finance: Bridging Natural and Financial Capital Through Robust Impact Measurement" Risks 13, no. 11: 213. https://doi.org/10.3390/risks13110213
APA StyleSayn-Wittgenstein, F., de Mariz, F., & Leijonhufvud, C. (2025). Nature Finance: Bridging Natural and Financial Capital Through Robust Impact Measurement. Risks, 13(11), 213. https://doi.org/10.3390/risks13110213

