Data and Analytics

Climate change is reshaping the risks and opportunities faced by investors and businesses worldwide. At Scientific Climate Ratings, we provide data and analytics solutions that combine cutting-edge climate science with granular financial data to deliver comprehensive, actionable climate risk assessments.

We transform complex datasets into meaningful insights, empowering clients to navigate uncertainty, act decisively, and build resilience. From physical hazards such as floods and wildfires to transition risks driven by the shift to a low-carbon economy, our data, analytics, and ratings support organisations in preparing for a sustainable future.

ClimateMetrics - Our On-demand Climate Risk Platform

ClimateMetrics is an online climate risk platform providing access to granular, forward-looking climate data at a global scale.
The tool enables a simple, user-friendly screening of individual assets or portfolios, allowing users to assess physical and transition climate risks across multiple scenarios and time horizons.

Developed to serve a wide range of stakeholders, ClimateMetrics transforms complex climate data into actionable insights to support informed decision-making.

From climate data to decision-ready insights - all in one platform.

    Why Choose ClimateMetrics

    • Fast, streamlined asset creation enabling scalable analysis - from single-point assets to complex lines and polygons
    • Physical and transition risk modelling at the click of a button, across multiple scenarios and time horizons
    • Multiple output metrics available, including value at risk, scores, and ratings
    • Asset-level physical indicators (e.g. temperature increase, flood depth) to better understand climate impacts
    • High granularity, from single assets to large, diversified portfolios

    Selected use cases

    For Strategy and C-Level teams to future-proof their business with ease

    Our intuitive platform enables organisations to develop actionable strategies that mitigate climate risks and strengthen long-term resilience.
    Users can assess climate exposure at asset or portfolio level and benefit from modular, granular outputs tailored to their specific needs.

    For Risk teams to gain deep insights into climate risk exposure
    ClimateMetrics translates complex climate scenarios into clear, decision-relevant financial insights across multiple timeframes, supporting forward-looking, holistic risk management and risk informed planning.
    For investment teams to make informed investment decisions
    Screen potential investment locations and integrate climate risk insights directly into investment analysis. ClimateMetrics supports the evaluation of both existing assets and greenfield projects, helping investors assess climate-adjusted attractiveness and strengthen capital allocation decisions.

    You want to experience ClimateMetrics in action?
    Our experts will be happy to help.

    Book a demo

    Physical Risk

    Physical risks refer to the potential damage from acute extreme weather events and chronic changes in weather patterns due to climate change. These risks increase in scenarios where global carbon emissions are not reduced. In addition to the four hazard types captured by our ratings (floods, storms, wildfires, and heat stress), our data covers the main physical risks as identified by the EU Taxonomy Regulation.
    We measure the damage and disruption to infrastructure assets and their operations caused by extreme climate events.

    Physical Risk Key Metrics

    Physical Damage at Risk
    (PDaR)

    Expected annual damage from a given hazard in % of total assets*

    Physical Value at Risk
    (PVaR)

    Expected annual damage from a given hazard in (mUSD)*
    Expected Net Asset Value (NAV) Loss
    Expected NAV loss due to all physical damages expressed in (%) or in (mUSD)**

    7-level
    Physical Risk Scale
    (A to G)

    Low to extreme for all physical hazards

    * Could be expressed in revenue loss when relevant
    ** We can provide relative of absolute change between NAV without and with physical damages

    Decoding Physical Climate Risk: Find the Answers You Need (FAQ section)

    Our models allow us to calculate the impact on assets’ Net Asset Values (NAVs) resulting from physical damage and disruptions. This percentage value provides companies with an understanding of the financial materiality of physical risks until two time horizons: 2035 and 2050. This calculation is reflected in the Climate Risk Rating (CRR).

    Yes, we include climate scenarios in our models to consider the increase in future damages. For physical risks, we consider two SSP-RCP scenarios, SSP2-4.5 and SSP5-8.5, which we align with all major climate scenarios.
    We cover damage from floods, storms, wildfires, and heat stress. According to the UNDRR (2020), floods and storms are the most common climate-related hazard events, accounting for approximately 44% and 28% of all climate events between 2000 and 2019, while extreme temperatures account for 6% and wildfires for 3%. Additionally, the majority of research focuses on these hazard types and provides damage functions and other indicators that allow us to measure damage and disruption caused by such climate events. In addition, our framework covers most of the other climate hazards identified under the EU Taxonomy, ensuring broad alignment with European regulatory standards.

    ClimateMetrics models climate hazards using three return periods: 10-year, 100-year, and 500-year events.

    These correspond to different layers of risk:

    • 10-year events (RP10): frequent hazards affecting operations and business continuity
    • 100-year events (RP100): structural stress benchmarks widely used in resilience and adaptation planning
    • 500-year events (RP500): severe but plausible extreme events used to assess tail risk exposure

    This tiered approach enables users to assess both operational vulnerability and long-term resilience, while ensuring consistency across asset types and geographies.

    We review our models and metrics on an annual basis, which may result in updates to incorporate the latest input data sources (e.g., updated hazard maps, revised damage functions, new research findings, or changes in company information).

    • Floods: flood depth in a global 30m by 30m resolution
    • Extratropical storms: max. wind gust in a global 0.25° by 0.25° resolution
    • Tropical cyclones: max. wind speed in a global 11km by 11km resolution
    • Wildfires: burnt date in a global 500m by 500m resolution
    • Heat stress: Wet Bulb Globe Temperature in a global 25km by 25km resolution

    For some hazards, we use several indicators. Please refer to our technical documents on physical risks for more details.

    Must-haves:

    • Asset’s location: name, address (with postal code), ideally coordinates (latitude & longitude)
    • Type of asset: sector (ideally, specific TICCS sector classification)

    For a more precise assessment:

    • Financial information: total asset value, revenue
    • Resilience strategies

    Methodology Documents

    Storm Risk
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    Wildfire Risk
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    Flood Risk
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    Heat Risk
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    Transition Risk

    Transition risks refer to the potential affect arising from the shift towards a low-carbon economy. These include changes in policies that impact carbon costs, technological advancements, shifts in market preferences, and reputational risks. Based on companies’ direct and indirect carbon emissions, our ratings capture exposure to transition risks and assess their financial impacts.

    Transition Risk Key Metrics

    Absolute Carbon Emissions
    Scope 1, 2, and 3 carbon emissions (in tCO2e)
    Carbon Intensity

    Scope 1+2 and Scope 3 carbon intensity by revenue (in tCO2e/mUSD)

    Financed Emissions

    Scope 1+2 emissions divided by NAV or EVIC (in tCO2e/mUSD)

    Expected NAV loss
    Expected NAV loss due to both Policy & Technology and Market Preferences expressed in (%) or (mUSD)

    Decoding Climate Risk: Find the Answers You Need (FAQ section)

    TCFD defines transition risks as arising from the shift toward a low-carbon economy, including changes in regulation, carbon pricing, technological innovation, and evolving market dynamics. While carbon pricing is a central policy tool designed to incentivise emissions reduction, transition risk extends beyond direct carbon costs. It also encompasses structural changes in demand, competitiveness, and sectoral growth patterns driven by decarbonisation pathways.

    Accordingly, our transition risk assessment does not rely solely on carbon intensities and carbon tax assumptions. In addition to modelling carbon cost exposure, we incorporate scenario-based sector–country revenue projections as a proxy for market demand shifts under different climate pathways. This enables us to capture how policy developments, technology adoption, and changing investor and consumer preferences may affect revenues across sectors and geographies.

    By combining carbon cost impacts with forward-looking revenue dynamics, we provide a comprehensive view of transition risk, translating both cost-side pressures and demand-side shifts into financial impacts on cash flows and asset valuation.

    Multiple years of research support our carbon metrics estimates. This includes the use of The Infrastructure Company and Classification Standard (TICCS) to classify infrastructure assets, as well as the TICCS+ Taxonomy and EDHEC Materiality Profiles to identify assets’ main activities and operations, their primary technologies, and their main sources of emissions. Our estimates further rely on public research articles that specify sector activities and reports from reliable institutions (e.g., EIA, IEA, NREL, World Bank), among others. For more details, please refer to our S1+2 and S3 methodology documents.

    Data availability for some infrastructure sectors remains a challenge. Accordingly, some of our emission estimations rely on revenue- or activity-based models rather than statistical calibration. However, by combining a variety of data sources with reliable approaches and aligning them with widely accepted standards, such as the Greenhouse Gas Protocol, we can gain valuable and reliable insights into patterns of carbon intensity across TICCS superclasses. Moreover, our methods and models are validated against emission estimates from various sources, including international organisations (e.g. World Bank, WRI, EIA) and reported data from companies’ sustainability reports.

    We provide carbon intensities by revenue for Scope 1+2 and Scope 3 emissions at the asset/company level.  For all approaches, we aim to include as much reported data on S1+2 emissions as possible to improve the robustness of the results. For Scope 3 carbon emission intensities, our methodology estimates these using a top-down approach. Our approach focuses on systematic features common to assets within the same sector rather than idiosyncratic characteristics, which are difficult to capture for multi-tiered supply chains. We focus specifically on the operational upstream and downstream activities of infrastructure assets, excluding emissions from the construction and disposal phases.

    We calculate Data Quality Scores (DQS) for the data used to quantify Scope 1, Scope 2, and Scope 3 emissions.  The DQS offers decreasing quality scores ranging from 1 to 5, inspired by PCAF.

    Yes, we do consider the effects of future climate scenarios. All our underlying metrics are available across seven scenarios that describe possible pathways for a large number of macro-financial quantities, spanning two time horizons: until 2035 and 2050. For the Climate Exposure Rating, we calculate all metrics under the most likely scenario, while for the Climate Risk Rating, we consider the weighted averages across all scenarios, based on their probabilities.

    All metrics are aligned with well-accepted international standards, like the Greenhouse Gas Protocol and the Partnership for Carbon Accounting Financials (PCAF). If available, our methodology follows additional recommendations from sector-specific institutions. We further provide a Data Quality Score (DQS) that highlights the reliability and precision of the underlying data. The DQS are aligned with PCAF, offering a clear benchmark to evaluate data completeness, consistency, and relevance.

    The carbon metrics are updated on an annual basis using multiple sources of data, such as:

    • Reported emissions from financial and sustainability reports
    • Public information, like public data from international organisations (e.g. the World Bank, EIA, WRI), websites of companies, and other reliable sources
    • Commercial datasets that provide asset characteristics, such as geolocation, capacities, output production, or volumes of operations

    For more details, please refer to our S1+2 and S3 methodology documents.

    Methodology Documents

    Scope 1+2
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    Scope 3
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    ClimaTech

    ClimaTech is the world’s largest knowledge base for strategies and technologies, which supports companies in their efforts to mitigate risks, adapt to climate change, decarbonise, and build resilience — the database offers actionable insights for sustainable and resilient assets across all TICCS infrastructure sectors. Our ratings use the provided indicators on strategies’ effectiveness to re-evaluate pclimate risks and adjust the CER and CRR.

    For more information, please visit the ClimaTech website.

    ClimaTech Database

    Effectiveness:
    — a) Very High ≥95% · b) High 65–94% · c) Medium 35–64% · d) Low 5–34% · e) Very Low <5%

    Level of protection:
    — Floods: i) Very High: > 1:1000 year event · ii) High:  1:100 < x ≤ 1:1000 year event · iii) Medium: 1:50 < x ≤ 1:100 year event · iv) Low: ≤ 1:50 year event
    — Storms: i) Very High: > 1:1000 year event · ii) High:  1:100 < x ≤ 1:1000 year event · iii) Medium: 1:50 < x ≤ 1:100 year event · iv) Low: ≤ 1:50 year event
    — Heat: i) Very High ≥ 50 degrees centigrade · ii) High 40 ≤ x < 50 degrees centigrade · iii) Medium 35 ≤ x < 40 degrees centigrade · iv) Low < 35 degrees centigrade

    1.The figures presented are based on the best available research at the time of writing and reflect our current understanding.

    2. Data has been sourced from a range of literature, including academic publications, technical reports, industry guidance documents, engineering manuals, and case studies. These values are indicative only and should be treated as general benchmarks or ranges. The real-world effectiveness of any given strategy is asset-specific and depends heavily on site conditions, design choices, and implementation quality.

    3. For physical risk damage reduction strategies, protection levels are defined based on expert judgment regarding typical hazard intensities that resilience measures are designed to withstand. These thresholds may vary depending on the applicable national or regional design codes, as well as the asset’s specific risk profile and the nature and quality of the infrastructure being built.

    Decoding Climate Risk: Find the Answers You Need (FAQ section)

    Yes, we can account for companies’ adaptation measures and strategies at the asset level. We use our proprietary database, ClimaTech, which incorporates 100+ distinct strategies across 101 infrastructure sectors, resulting in approximately 1,800 sector-strategy applications. These strategies are assessed based on their sector-specific effectiveness levels and key enabling technologies, drawing on insights from more than 200 academic papers, technical documents, and government reports. We present the effectiveness of decarbonisation strategies (transition risk) in terms of avoided emissions in percent, and the effectiveness of resilience measures (physical risk) in terms of damage reduction in percent. A review board of experts from academia, the private sector, construction standards, sovereign wealth funds, public pension funds, consulting, and regulatory bodies validates the database for relevance and robustness, ensuring adherence to the highest scientific and industry standards. For more information, please visit the ClimaTech website.

    Our physical risk model for wildfires primarily includes historical burnt data, climate conditions, and vegetation density to estimate wildfire probabilities. While we do not include localised vegetation management like creating defensible space, controlled burns, or fire-resistant landscaping, we do assess direct measures on a company level, and – depending on the evaluation through ClimaTech – adjust the ratings accordingly.

    Methodology Documents

    ClimaTech
    Overview

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    ClimaTech
    Executive Brief

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    ClimaTech Non-
    Renewable Power
    (IC10)

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    ClimaTech
    Environmental Services
    (IC20)

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    ClimaTech Social
    Infrastructure
    (IC30)

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    ClimaTech Energy and
    Water Resources
    (IC40)

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    ClimaTech 
    Data Infrastructure
    (IC50)

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    ClimaTech Transport
    (IC60)

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    ClimaTech Renewable
    Power
    (IC70)

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    ClimaTech Networked
    Utilities
    (IC80)

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