Earth globe visual

Real World
Climate Impact
At Scale

Explore how climate technologies across the TIF & TIGF portfolios are forecast to alter the trajectory of global emissions over the next 15 years.

In this first-of-its-kind interactive experience, Capricorn Investment Group presents the global emissions landscape as it is today and how it could evolve through the scaling of climate technologies across the global economy.

The following experience is presented in three distinct chapters. Scroll to continue or select a chapter from the navigation bar below at any time.

Global Emissions Landscape

Explore how emissions flow through the global economic system.

TIF & TIGF Portfolios

See where TIF & TIGF portfolio companies are developing solutions across this system.

Technology Impacts

Explore how these solutions could reshape global emissions flows by 2040.

NOTE TO USERS: This page includes forward-looking, third-party-modeled data regarding hypothetical technology and emissions outcomes. Please review the disclosures in the "Conclusion" section before relying on the information presented.

Centered on the portfolios of the Technology Impact Fund (TIF) and Technology Growth Impact Fund (TIGF), this interactive experience builds upon the pioneering systems modeling work of Dr. Bojana Bajželj, Julian Allwood, and Jonathan Cullen and incorporates updated public data to visualize relationships between economic activities and greenhouse gas emissions at planetary scale.

The purpose is to make climate impact more transparent, tangible, and decision-useful: showing where emissions come from, how systems are connected, and where innovation can shift the trajectory.

Begin exploring the flows shaping our future.

Loading data...

The next step is to turn to the future — to 2040.

That’s the world we have a laser-like focus on at Capricorn, since it’s the global emissions landscape we are on a mission to change.

This is our starting point for exploring the investments of the Technology Impact Fund and Technology Impact Growth Fund.

It's the landscape of global emissions where we are contributing new solutions to accelerate decarbonization.

Consider three themes within the TIF & TIGF portfolios:

Together, the technologies in the TIF & TIGF portfolios touch many parts of the global economy.

The technologies in TIF & TIGF's portfolio impact the 2040 Global Emissions Landscape by avoiding emissions that would otherwise occur.

Here, we show the largest potential avoided emissions, assuming that the technology scales to its maximum, transforming the market it targets.

Let's take Fervo's enhanced geothermal system (EGS) technology as an example, which avoids future emissions by replacing fossil fuel baseload power generation.

These avoided emissions ripple across the global economy.

Select any company in TIF & TIGF's portfolio to see how its technology is forecast to impact the Global Emissions Landscape.

Select a portfolio company to view its mapped node and potential avoided emissions in 2040A.

Taken together, the technologies across the TIF & TIGF portfolios have the potential to meaningfully reduce the world’s emissions trajectory by 2040.

The precise outcome will depend on how quickly these technologies scale, where they are deployed, and what they replace.

But the direction is clear: thoughtful investment can help turn climate innovation into real-world emissions reductions at global scale.

Thank you for joining us. We look forward to continuing that journey with you.

Acknowledgements and Citations

How the Emissions Map was Built

The framework

The map is built on the framework published in Bajzelj et al. (2013) and the sources compiled there. That work divides total annual anthropogenic greenhouse gas emissions, including energy, process, and land-use change emissions, into seven views of the same global total. Each is a lens on where those emissions come from: the final service being bought, the economic sector that delivers it, the equipment used, the powered device inside that equipment, the final form of energy, the fuel, and the gas released. Emissions from land follow a parallel chain, from service through sector to land use and land management. Flows connect the nodes in one lens to the nodes in an adjacent lens, showing, for example, how emissions from a sector are connected to particular equipment. The original data was compiled for 2010 from IEA fuel-combustion statistics and EDGAR v4.2, with the allocations between nodes derived by triangulation across industry, government, and academic sources.

The 2025 data update

The underlying data was updated to a present-day base year as part of this project. Energy emissions, process emissions, and agriculture, forestry and land-use change emissions were all updated from the sources cited below. Two nodes were added to represent computing: digital infrastructure equipment at the equipment level, and computing infrastructure, covering data centers, cryptocurrency, and AI, at the device level. An electric motor flow to cars and buses was added so that the electricity they use resolves to the grid rather than to a combustion engine. How emissions flow between the nodes of adjacent lenses was reviewed throughout rather than carried over: those flows were updated where newer data supported a different allocation, and retained where no better evidence existed. The result is a global total of approximately 54 Gt CO2e.

The 2040 projection

Projecting the map to 2040 uses the NGFS Phase 5 Scenarios Database under its Current Policies scenario, which carries forward only the climate policy legislated and in force today and assumes no new commitments beyond it. That is an assumption about policy rather than about technology: clean technology continues to be deployed and to improve at the pace current policies support. Sector emissions for 2025 and 2040 were obtained from the average across the three core integrated assessment models: GCAM 6.0, MESSAGEix-GLOBIOM 2.0-M-R12, and REMIND-MAgPIE 3.3-4.8. Each sector was then reduced to a 2025-to-2040 growth factor and applied to the corresponding sector node in the 2025 map. The 2040 map keeps the allocations established for 2025. The projected global total is 56.6 Gt CO2e.

Connections across the map

The underlying data describes connections between adjacent nodes, one lens to the next. It records how much flows from one node to the next, but not which onward connection any particular incoming flow feeds. The continuous flows shown in the Experience span all seven lenses, by assuming that each flow arriving at a node spreads across the connections leaving it in proportion to their size. Combinations that are not physically sensible, such as demand for illumination entering the residential sector and leaving through a hot water system, are ruled out at the sector lens.

References

  1. Bajzelj, B., Allwood, J. M., and Cullen, J. M. (2013). Designing Climate Change Mitigation Plans That Add Up. Environmental Science & Technology 47(14), 8062–8069. doi:10.1021/es400399h
  2. IEA datasets. GHG Emissions from Energy (2024); World Energy Statistics and Balances; World Energy Balances 2019 (doi:10.1787/3a876031-en); CO2 Emissions from Fuel Combustion 2019 (doi:10.1787/2a701673-en)
  3. IEA reports. World Energy Outlook 2024; Road Transport 2023; Electricity 2024; Energy and AI 2025
  4. IEA energy system topic pages and data charts. iea.org/topics, iea.org/data-and-statistics/charts
  5. EDGAR, Emissions Database for Global Atmospheric Research, 2024 release. European Commission Joint Research Centre
  6. NGFS Phase 5 Scenarios Database, Current Policies scenario. GCAM 6.0, MESSAGEix-GLOBIOM 2.0-M-R12, and REMIND-MAgPIE 3.3-4.8, accessed through the IIASA Scenario Explorer
  7. IPCC (2021), Sixth Assessment Report, Working Group I. GWP-100 characterization factors
  8. FAO, FAOSTAT. Emissions Totals; Forestry Production and Trade; Food Balances
  9. UNFCCC, Greenhouse Gas Inventory Database, Annex I
  10. USGS National Minerals Information Center, Aluminum and Lime statistics and information
  11. Pendrill, F. et al. (2019). Agricultural and forestry trade drives large share of tropical deforestation emissions. Global Environmental Change 56, 1–10. doi:10.1016/j.gloenvcha.2019.03.002
  12. Friedlingstein, P. et al. (2025). Global Carbon Budget 2024. Earth System Science Data 17, 965–1039. doi:10.5194/essd-17-965-2025
  13. Purohit, P. and Höglund-Isaksson, L. (2017). Global emissions of fluorinated greenhouse gases 2005–2050 with abatement potentials and costs. Atmospheric Chemistry and Physics 17, 2795–2816. doi:10.5194/acp-17-2795-2017
  14. International Fertilizer Association (2022). Fertilizer Use by Crop and Country for the 2017–2018 period
  15. European Solvents Industry Group (2017). Solvents and ESIG
  16. US Department of Transportation, Federal Highway Administration. National Household Travel Survey, 2022
  17. Eurostat, Air Transport Performance.

Credits

This interactive experience was created by Capricorn Investment Group.

September 2026 © Capricorn Investment Group

Partners

  • Management & NarrativeTideline
  • Research & DataRho Impact
  • DesignGreat Jones Studio
  • AnimationOpuscule
The Conclusion section includes more information on the forecasting approach and related disclosures.