Advancing Climate Solutions Executive Summary

Progress Report 2025

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Solving the “and” equation - Meeting demand and reducing emissions

 

Climate change is real and stands as one of the major challenges facing the world today. But it’s not the only one.

Here’s another – the need to provide reliably affordable energy and critical products necessary to improve living standards around the world.

Some call this the “dual challenge.” But where some see challenges, we see solutions. The world doesn’t have to choose between higher living standards and lower emissions. We can do both. It is an “and” equation, and we’re bringing solutions to help solve it.

Energy poverty remains far too common. The policies that drive innovation are not advancing fast enough for the world to achieve its net-zero aspirations by 2050.

Both the United Nations and the International Energy Agency acknowledge the world is not on the path to meet the goals of the Paris Agreement.1,2

Global energy related emissions infographic

2024 Global Outlook

“If you were to list the biggest challenges facing humankind, energy poverty and climate change are at the top. And if you list the companies with a realistic chance to help improve access to energy and help ‘bend the curve’ on emissions, ExxonMobil would also be at the top.”
Darren Woods
ExxonMobil Chairman and CEO

 

Pledges are not enough. The world needs a plan.

In this Advancing Climate Solutions report, we discuss how ExxonMobil has the right tools, technologies, and people to help the world bend the curve on emissions. We highlight our work to:

  • Reduce our own emissions and others’.
  • Achieve our 2030 emission-intensity reduction plans.3
  • Apply our leading-edge capabilities to profitably grow our low-carbon business opportunities. 

We also propose rational and constructive policies, focused on product-level carbon-intensity standards and a well-designed carbon-emissions accounting framework, that we believe will, if implemented, help the world speed up a thoughtful energy transition and still meet society’s needs for energy and products. 

Key takeaways

  1. We’re pursuing up to $30 billion in lower-emission investments 2025-2030.4
  2. We’re on track to meet our 2030 emission-reduction plans.
  3. We’ve built a robust business that is positioned to grow in any future.
  4. We’re proposing policy solutions that we believe will bring emissions down more effectively and efficiently. 

World-scale problems - Call for world-scale solutions


 

As the world works to meet demand for energy and products, it generates about 34 billion metric tons of energy-related CO2 emissions per year.5

Three sectors make up ~80% of that – commercial transportation, industrial activity, and power generation.

Energy-related emissions by sector (CO2 billion metric tons)

80 percent graphic

Getting to net zero requires very large-scale solutions. 

Finding solutions that work will take new technology, rational and constructive policy, and competitive markets that drive innovation and pay for emission reductions. It will take sustained investments to:

  • Meet society’s growing needs for reliable and affordable energy and products.
  • Create economic growth, especially in developing countries.
  • Develop new technologies that affordably reduce global emissions.

2050 global energy mix

2024 Global Outlook

Global energy demand

Quadrillion British thermal units

Image Global energy demand

Only 3 of 50+ technologies needed for the world to achieve net zero by 2050 are “on track” – and in many countries, grid investments aren’t keeping pace.6,7

International Energy Agency

The opportunity - Transforming molecules to help solve the “and” equation

 

ExxonMobil has thrived for more than 140 years transforming the molecules that form the foundation of our physical world into solutions that meet society’s critical needs.

Examples of how we apply technology to transform molecules:

  • Capturing, transporting, and storing CO2.

    The U.N. describes carbon capture and storage as a “critical” mitigation option. We have the world’s only large-scale end-to-end CCS system.8,9
  • Producing hydrogen from natural gas with CCS.

    Working to develop the world’s largest hydrogen production facility to produce virtually carbon-free hydrogen (with ~98% of CO2 captured and stored).10
  • Liquifying gas to economically transport it around the world to power homes and industries.

    Liquefied natural gas can eliminate up to 60% of GHG emissions when it replaces coal to generate electricity.11
  • Upgrading low-value molecules into valuable products that reduce carbon emissions.*

    High-value carbon materials like ProxximaTM thermoset resins and certified-circular polymers can turn gasoline components and discarded plastic into value.

    *“Reduce carbon emissions” applies to ProxximaTM. See footnote 21. Certified-circular polymers are virgin quality plastics that are accompanied by an ISCC PLUS “Sustainability Declaration” that matches the mass of virgin quality plastics that we sell to a corresponding amount of plastic waste that we transformed back into usable raw materials through advanced recycling. Certified-circular polymers do not represent specific amounts of GHG emissions or recycled content.
    Image

    This unique combination of strengths forms the foundation of our company and drives our strategic priorities:

    Leading performance
    Industry leader in shareholder returns, earnings and cash-flow growth, safety, reliability, GHG emissions intensity, and cost and capital efficiency.

    Essential partner
    Create value through win-win solutions for our customers, partners and broader stakeholders, including the communities where we operate.

    Advantaged portfolio
    Portfolio of assets and products that outperform competition and grow value in a lower-emissions future; flexible portfolio of industry-leading, high-return investments that strengthens our competitive position in an evolving world.

    Innovative solutions
    Develop new products, approaches and technologies to improve competitiveness and accelerate large-scale deployment of solutions essential to modern life and a lower emissions future.

    Meaningful development
    A diverse and engaged organization that provides every individual unrivaled opportunities for personal and professional growth with impactful work meeting society’s evolving needs.

     

    Increasing investments to lower emissions12- Our own and others’

     

    Pursing lower emissions

     

    Our investments in carbon capture, hydrogen, biofuels, and lithium have the potential to reduce third-party emissions by more than 50 million metric tons per year by 2030.13

    Per the U.S. EPA, that’s equal to the CO2 emissions from nearly 10 million U.S. homes’ electricity use for one year.14 To put this in context, that’s nearly double the number of single-family homes in New York City, Houston, and Los Angeles combined.

    “When it comes to developing lower-emission solutions beyond wind, solar, and electric vehicles, nobody is doing more.”
    Darren Woods
    ExxonMobil Chairman and CEO
    CERAWeek 2024
    CCS map
    Advantaged U.S. Gulf Coast Position19
    Click to enlarge.

    Getting the world to net-zero requires all technologies to be in the mix.

    Here’s what we’re working on today to help lower emissions in hard-to-decarbonize sectors:

    • Carbon capture and storage: We have the largest CO2 pipeline network in the United States, and we have agreements with major industrial customers to transport and store up to 8.7 million metric tons of direct CO2 emissions per year.15 We are on our way to 30 million metric tons per year under contract by 2030.16
    • Hydrogen: We’re working to develop the world’s largest plant to produce virtually carbon-free hydrogen (with ~98% of CO2 captured and stored),17 with planned capacity that meets nearly 10% of the U.S. National Hydrogen Program Plan’s projected 10 million metric tons of hydrogen per year by 2030.18
    • Liquefied natural gas (LNG): We expect to surpass 40 million metric tons of LNG sales per year by 2030 with large-scale projects in the United States, Papua New Guinea, Mozambique, and Qatar. 
    • Biofuels: We’re building renewable diesel facilities at our majority-owned affiliate Imperial Oil’s Strathcona refinery, expected to start up in 2025 using locally sourced bio-feedstock.
    • Lithium: We aim to become a substantial lithium supplier by producing low-cost lithium using a process that has far less environmental impact than traditional hard rock mining.20
    • Carbon materials: We see opportunities to transform low-value, carbon-rich materials from refining and petrochemical processes to create high-value products for growing markets – including battery components for applications in EVs and beyond.
    • ProxximaTM resin systems: We’re transforming low-value gasoline molecules into a high-value resin that is lighter weight, corrosion-resistant, and more durable than steel. This material also has less than half the GHG emissions of many traditional thermoset resins.21
    • Direct air capture: Negative-emission solutions like direct air capture could play a big role in meeting the world’s net-zero goals. We’ve launched a pilot project using our own unique design that has the potential to significantly lower costs.

    Our plans and progress - 2030 GHG emission-reduction plans and 2050 net-zero ambition

     

    Since 2016, we’ve reduced our operated GHG emissions intensity by more than 15% driven by methane and flaring reductions, and improved energy efficiency.

    >15% reduction in corporate-wide GHG emissions intensity22

    Operated Basis
    (T CO2e/100 T)

    Corporate GHG intensity % change chart

    Our 2030 plans drive further reductions vs. 2016 – and we’re on track to meet them.23

    Applies to Scope 1 and 2 GHG emissions from operated assets.

    Image Our 2030 plans drive further reductions vs. 2016  and were on track to meet them.23

     

    Our 2050 net-zero ambition

    In January 2022, we announced a 2050 net-zero GHG ambition for our operated assets, which requires new advancements in technology and practical government policies.24

    Since then, it’s become even clearer that supportive technology and stronger policies are critical to reach net-zero by 2050. Currently, society’s progress continues to lag in these areas.25 Without the right policies and the innovations they drive, net-zero by 2050 will remain out of reach – for society and ExxonMobil.

    For our part, we’re planning to pursue up to $30 billion in lower-emission efforts between 2025 and 2030.26 We’re also on track with our 2030 emissions-intensity reduction plans, which we actively steward as part of our business plans.27

    Potential GHG abatement options for ExxonMobil operated assets supporting 2030 Permian unconventional net-zero plan28

    Potential GHG abatement chart

    Our plans and progress - Building a business for the long term

     

    Informed by our Global Outlook, we update our business plans to advance our 2030 emission-intensity reduction objectives every year. The roadmap and abatement curve below help illustrate the potential pathways for achieving these goals.

    Abatement options for operated assets to advance 2030 Scope 1 & 2 GHG emission-intensity reduction plans29

    Abatement options for operated assets to advance 2030 Scope 1&2 GHG emission-intensity reduction plans
    We're speeding up Pioneer's Scope 1 and 2 net-zero ambition by 15 years

    Our plans to reduce emissions through 2030 include:

    • Achieving net-zero Scope 1 and 2 GHG emissions in our heritage Permian Basin unconventional operated assets.
    • Advancing technologies, including satellite, aerial, and ground-sensor networks to detect and further reduce methane emissions.
    • Eliminating routine flaring in our upstream operations in line with the World Bank Zero Routine Flaring Initiative.30
    • Deploying carbon capture and storage, hydrogen, and lower-emission fuels in our operations.
    • Electrification of equipment and integration of lower GHG energy sources. 
    • Improving energy efficiency in our businesses by evolving operational, maintenance, and design processes.

    Well-positioned for a lower-emissions future

    No single transition pathway can be reasonably predicted. There is still a wide range of uncertainties. 

    As a result, we assess the strength of our business and investment portfolio against a range of future scenarios, including the IEA Net Zero Emissions by 2050 (NZE) scenario. The NZE assumes net zero by 2050 and lays out what would have to occur for that to happen. Notably, even the IEA acknowledges that society is not on the NZE pathway. 

    Our modeling, using the extreme assumptions in the NZE, continues to demonstrate that our business is well positioned to generate growth and value even in such a remote scenario. 

    In this scenario and others, we see great potential for products in our portfolio critical to achieve society’s net-zero ambition, including chemicals, carbon capture and storage, hydrogen, lower-emission fuels, ProxximaTM systems, and carbon materials.

    We have updated our NZE scenario modeling, which has been validated by a third party. Changes to the NZE have not changed the outcome of our assessments.

    If our business is robust to such an extreme scenario, we have great confidence it is very well-positioned in more realistic pathways.

    Our plans and progress - Spotlight on methane emissions

     

    Methane is the principal component of natural gas.

    What makes natural gas a valuable source of energy?

    • It’s reliable, flexible, and transportable.
    • It’s abundant in many places around the world.
    • It reduces CO2 emissions by up to 60% when used to generate electricity vs. coal.32

    But to fully realize the benefits of natural gas, methane must be managed, because it is a more potent GHG than CO2. That’s why it’s important for us to keep methane contained in our operations, including pipeline networks, storage tanks, and processing equipment. 

    And we’re making good progress. Methane and flaring reductions made up the bulk of our more than 15% company-wide emissions-intensity reductions since 2016.

    Finding methane leaks in diverse environments, across vast acreage, at every point in our operations isn’t easy. But we continue to develop and deploy technology for rapid detection, quantification, and mitigation of sources of methane at our operated assets.

    Natural gas demand continues to grow, and our Global Outlook forecasts that it will be 25% of the global energy mix in 2050.

    Image Natural gas demand continues to grow, and our Global Outlook forecasts that it will be 25% of the global energy mix in 2050.

    *includes biomass, biofuels, hydropower, geothermal
    2024 Global Outlook

    Our key collaborations:

    Oil & Gas Decarbonization Charter as announced at COP28

    • Industry wide ambition for net-zero Scope 1 and 2 emissions for owned assets by 2050.
    • Plans for methane, including near-zero upstream methane emissions by 2030 and zero routine flaring by 2030. 
    • Advocacy for best practices and policies to accelerate net zero.

    U.N. Oil & Gas Methane Partnership (OGMP) 2.0

    • Participating companies detect, quantify, verify, and report on methane emissions.
    Image

    Rational and constructive policy - Key to meeting demand for energy products and reducing carbon emissions

    Image

     

    Policy can, and must, work hand-in-hand with technology to accelerate a thoughtful energy transition. Any policy that doesn’t help solve the “and” equation is neither rational nor just.

    Today’s approach is too narrowly focused on reducing supply, even as global demand continues to rise. That can lead to shortages, higher prices for essential products, and a world in which energy poverty remains far too common. 

    There’s a better way.

    We propose product-level carbon-intensity standards that are underpinned by a uniform, accurate, and broadly applied method of direct carbon-emissions accounting (CEA) based on the principles of chemistry and finance. 

    • Chemistry: Understanding how and when CO2 emissions are created, reduced, or emitted.
    • Accounting: When the emissions from each product and service are counted, the total must equal the total CO2 emitted into the atmosphere.

    Product-level carbon-intensity standards are proven. They are adjustable. And they allow for the most cost-effective solutions for consumers. There are many successful examples of product standards that have reduced or eliminated pollutants in diesel, marine fuel, refrigerants, and gasoline. The same principles can be applied to emissions intensity.  

    That’s how society can bend the curve on emissions while meeting people’s needs.

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    Publications

    Explore more

     

    FOOTNOTES:

    1.  IPCC, 2023: Summary for Policymakers. In: Climate Change 2023: Synthesis Report. Contribution of Working Groups I, II and III to the Sixth Assessment Report of the Intergovernmental Panel on Climate Change [Core Writing Team, H. Lee and J. Romero (eds.)]. IPCC, Geneva, Switzerland, pp. 1-34, doi: 10.59327/IPCC/AR6-9789291691647.001: https://www.ipcc.ch/report/ar6/syr/downloads/report/IPCC_AR6_SYR_SPM.pdf.  
    2. IEA (2023), Net Zero Roadmap: A Global Pathway to Keep the 1.5 °C Goal in Reach, IEA, Paris https://www.iea.org/reports/net-zero-roadmap-a-global-pathway-to-keep-the-15-0c-goal-in-reach, Licence: CC BY 4.0IEA. 
    3. Based on Scope 1 and Scope 2 emissions from operated assets. Intensity is calculated as emissions per metric ton of throughput/production. ExxonMobil-reported emissions, reductions, and avoidance performance data are based on a combination of measured and estimated emissions data using reasonable efforts and collection methods. Calculations are based on industry standards and best practices, including guidance from the American Petroleum Institute (API) and Ipieca. There is uncertainty associated with the emissions, reductions, and avoidance performance data due to variation in the processes and operations, the availability of sufficient data, quality of those data, and methodology used for measurement and estimation. Performance data may include rounding. Changes to the performance data may be reported as part of the Company’s annual publications as new or updated data and/or emission methodologies become available. We are working to continuously improve our performance and methods to detect, measure and address greenhouse gas emissions. ExxonMobil works with industry, including API and Ipieca, to improve emission factors and methodologies, including measurements and estimates. 
    4. Lower-emissions cash capex includes cash capex attributable to carbon capture and storage, hydrogen, lithium, biofuels, ProxximaTM systems, carbon materials, and activities to lower ExxonMobil’s emissions and/or third party (3P) emissions. Planned spend is from 2025-2030: https://d1io3yog0oux5.cloudfront.net/_55ef03a4ca6327454ca16bd9d75cb53a/exxonmobil/db/2261/22349/file/Corporate_Plan_Update_and_Upstream_Spotlight_Press_Release_Final.pdf.
    5. ExxonMobil 2024 Global Outlook.
    6. IEA (2023), Tracking Clean Energy Progress 2023, IEA, Paris https://www.iea.org/reports/tracking-clean-energy-progress-2023, Licence: CC BY 4.0.
    7. IEA (2024), Renewables 2024, IEA, Paris https://www.iea.org/reports/renewables-2024, Licence: CC BY 4.0.
    8. IPCC, 2022: Climate Change 2022: Mitigation of Climate Change. Contribution of Working Group III to the Sixth Assessment Report of the Intergovernmental Panel on Climate Change [P.R. Shukla, J. Skea, R. Slade, A. Al Khourdajie, R. van Diemen, D. McCollum, M. Pathak, S. Some, P. Vyas, R. Fradera, M. Belkacemi, A. Hasija, G. Lisboa, S. Luz, J. Malley, (eds.)]. Cambridge University Press, Cambridge, UK and New York, NY, USA. doi: 10.1017/9781009157926.
    9. “End-to-end CCS system” entails CO2 capture as well as transportation and storage of CO2. Based on contracts to move up to 8.7 MTA CO2, subject to additional investment by ExxonMobil and receipt of government permitting for carbon capture and storage projects.
    10. References to virtually carbon-free hydrogen pertain to hydrogen expected to be produced at ExxonMobil's Baytown, TX facility, where approximately 98% of CO2 is removed and permanently stored.
    11. Based on ExxonMobil analysis for power plant use including EIA U.S. electricity net generation and resulting CO2 emissions:  https://www.eia.gov/tools/faqs/faq.php?id=74&t=11. Reductions may vary based on regional differences and other variables.
    12. Lower emissions cash capex includes cash capex attributable to carbon capture and storage, hydrogen, lithium, biofuels, ProxximaTM systems, carbon materials, and activities to lower ExxonMobil’s emissions and/or third party (3P) emissions. Planned spend is from 2025-2030: https://d1io3yog0oux5.cloudfront.net/_55ef03a4ca6327454ca16bd9d75cb53a/exxonmobil/db/2261/22349/file/Corporate_Plan_Update_and_Upstream_Spotlight_Press_Release_Final.pdf.
    13. We see the opportunity to help other essential industries and customers achieve their goals to lower emissions. Estimates of GHG emissions are on a life cycle basis and include avoided and abated emissions from hydrogen, lower emission fuels, and carbon capture and storage. For example, customers could avoid up to 25 MTA of their GHG emissions if all of ExxonMobil’s projected 2030 supply to the market of lower-emission fuels displaces conventional fuel refined from crude oil. Calculation is an ExxonMobil analysis illustrating the general benefits of lower-emission fuels based on estimated fuel carbon intensity (CI) from various third-party sources (such as Argonne National Labs’ GREET model) as compared against its conventional fuel alternate on a life cycle basis. Calculation is an estimate that represents a range of potential outcomes that are based on certain assumptions. Estimates are based on the potential implementation of projects or opportunities that are at various stages of maturity. Individual projects or opportunities may advance to a final investment decision by the company based on a number of factors, including availability of supportive policy and permitting, technology and infrastructure for cost-effective abatement, and alignment with our partners and other stakeholders. Actual avoided and abated emissions may differ.
    14. EPA’s greenhouse gas equivalencies calculator: Carbon dioxide or CO2 equivalent converted to a U.S. home’s electricity use for one year: https://www.epa.gov/energy/greenhouse-gas-equivalencies-calculator#results.
    15. Based on contracts to move up to 8.7 MTA CO2, subject to additional investment by ExxonMobil and receipt of government permitting for carbon capture and storage projects.
    16. 30 million metric tons of CO2 captured and stored by 2030 subject to additional investment by ExxonMobil, receipt of government permitting for carbon capture and storage projects, and start up of low-carbon hydrogen project in Baytown, TX.
    17. The Baytown hydrogen project is pre-FID. Final investment decision anticipated in 2025 subject to final 45V regulations for hydrogen production credits.
    18. U.S. Department of Energy’s National Hydrogen Program Plan:  https://www.hydrogen.energy.gov/docs/hydrogenprogramlibraries/pdfs/hydrogen-program-plan-2024.pdf?sfvrsn=bfc739dd_1.
    19. Information shown is approximate (e.g., storage / pipeline location) and has potential to change as projects are developed and implemented. CO2 storage includes Class VI Permit Application and GLO Storage Site Access.
    20. Expected smaller footprint of lithium mining and expected lower carbon and water impacts: EM analysis of external sources and third party life-cycle analyses. a) Vulcan Energy, 2022 https://v-er.eu/app/uploads/2023/11/LCA.pdf, Minviro publication. Grant, A., Deak, D., & Pell, R. (2020). b) The CO2 Impact of the 2020s Battery Quality Lithium Hydroxide Supply Chain-Jade Cove Partners. https://www.jadecove.com/research/liohco2impact. Kelly, J. C., Wang, M., Dai, Q., & Winjobi, O. (2021). c) Energy, greenhouse gas, and water life cycle analysis of lithium carbonate and lithium hydroxide monohydrate from brine and ore resources and their use in lithium ion battery cathodes and lithium ion batteries. Resources, Conservation and Recycling, 174, 105762.
    21. EM estimate calculated based on volumetric displacement of epoxy resin on a cradle to gate basis. Source: Comparative Carbon Footprint of Product ExxonMobil’s ProxximaTM Resin System to Alternative Resin Systems, June 2023 , prepared by Sphera Solutions , Inc. for ExxonMobil Technology and Engineering Company. The study was confirmed to be conducted according to and in compliance with ISO 14067: 2018 by an independent third party critical review panel materia-inc.com/what-do-we-do/our-products/creating-sustainable-solutions/lca-executive-summary.
    22. ExxonMobil’s reported emissions, reductions, and avoidance performance data are based on a combination of measured and estimated emissions data using reasonable efforts and collection methods. Calculations are based on industry standards and best practices, including guidance from the American Petroleum Institute (API) and Ipieca. There is uncertainty associated with the emissions, reductions, and avoidance performance data due to variation in the processes and operations, the availability of sufficient data, quality of those data, and methodology used for measurement and estimation. Performance data may include rounding. Changes to the performance data may be reported as part of the company’s annual publications as new or updated data and/or emission methodologies become available. We are working to continuously improve our performance and methods to detect, measure, and address greenhouse gas emissions. ExxonMobil works with industry, including API and Ipieca, to improve emission factors and methodologies, including measurements and estimates.
    23. Based on Scope 1 and Scope 2 emissions from operated assets. Intensity is calculated as emissions per metric ton of throughput/production. ExxonMobil reported emissions, reductions, and avoidance performance data are based on a combination of measured and estimated emissions data using reasonable efforts and collection methods. Calculations are based on industry standards and best practices, including guidance from the American Petroleum Institute (API) and Ipieca. There is uncertainty associated with the emissions, reductions, and avoidance performance data due to variation in the processes and operations, the availability of sufficient data, quality of those data, and methodology used for measurement and estimation. Performance data may include rounding. Changes to the performance data may be reported as part of the Company’s annual publications as new or updated data and/or emission methodologies become available. We are working to continuously improve our performance and methods to detect, measure and address greenhouse gas emissions. ExxonMobil works with industry, including API and Ipieca, to improve emission factors and methodologies, including measurements and estimates.
    24. See our website at corporate.exxonmobil.com/news/news-releases for January 18, 2022, release of Scope 1 and Scope 2 net-zero ambition for operated assets by 2050.
    25. IEA (2024), World Energy Outlook 2024, IEA, Paris https://www.iea.org/reports/world-energy-outlook-2024, Licence: CC BY 4.0 (report); CC BY NC SA 4.0 (Annex A); IPCC: AR6 Scenarios Database hosted by International Institute for Applied Systems Analysis (IIASA) release 1.0 average. IPCC C3: "Likely Below 2°C" scenarios.
    26. Lower-emissions cash capex includes cash capex attributable to carbon capture and storage, hydrogen, lithium, biofuels, ProxximaTM systems, carbon materials, and activities to lower ExxonMobil’s emissions and/or third party (3P) emissions. Planned spend is from 2025-2030: https://d1io3yog0oux5.cloudfront.net/_55ef03a4ca6327454ca16bd9d75cb53a/exxonmobil/db/2261/22349/file/Corporate_Plan_Update_and_Upstream_Spotlight_Press_Release_Final.pdf.
    27. Based on Scope 1 and Scope 2 emissions from operated assets. Intensity is calculated as emissions per metric ton of throughput/production. ExxonMobil reported emissions, reductions, and avoidance performance data are based on a combination of measured and estimated emissions data using reasonable efforts and collection methods. Calculations are based on industry standards and best practices, including guidance from the American Petroleum Institute (API) and Ipieca. There is uncertainty associated with the emissions, reductions, and avoidance performance data due to variation in the processes and operations, the availability of sufficient data, quality of those data, and methodology used for measurement and estimation. Performance data may include rounding. Changes to the performance data may be reported as part of the Company’s annual publications as new or updated data and/or emission methodologies become available. We are working to continuously improve our performance and methods to detect, measure and address greenhouse gas emissions. ExxonMobil works with industry, including API and Ipieca, to improve emission factors and methodologies, including measurements and estimates.
    28. This chart illustrates potential greenhouse gas abatement options for Scope 1 and 2 greenhouse gas emissions. These options are not all-inclusive and are subject to change as a result of a number of factors, including abatement reduction magnitude, implementation timing, abatement cost, portfolio changes, policy developments, technology advancements, and as annual company plans are updated. Includes energy attribute certificates, such as renewable energy certificates (RECs) and guarantees of origin (GOOs).
    29. These charts illustrate historical reductions and potential greenhouse gas abatement options for Scope 1 and 2 greenhouse gas emissions. The abatement options are not all-inclusive and are subject to change as a result of a number of factors, including abatement reduction magnitude, implementation timing, abatement cost, portfolio changes, policy developments, technology advancements, and as annual company plans are updated. Includes energy attribute certificates, such as renewable energy certificates (RECs) and guarantees of origin (GOOs). Historical reductions and potential abatement options have been normalized to exclude the impacts of divestments, acquisitions, and growth. Analysis as of April 2024.
    30. References to routine flaring herein are consistent with the World Bank’s Zero Routine Flaring by 2030 Initiative/Global Flaring & Methane Reduction (GFMR) Partnership principle of routine flaring, and excludes safety and non-routine flaring.
    31. See our website at corporate.exxonmobil.com/news/news-releases for May 3, 2024, release announcing the completion of the Pioneer Natural Resources Company acquisition.
    32. Based on ExxonMobil analysis for power plant use including EIA U.S. electricity net generation and resulting CO2 emissions: https://www.eia.gov/tools/faqs/faq.php?id=74&t=11. Reductions may vary based on regional differences and other variables.
    33. Emission metrics are based on assets operated by ExxonMobil, using the latest performance and plan data available as of 3/1/2025. Methane intensity is calculated as metric tons CH4 per 100 metric tons of throughput or production. Calculations are based on industry standards and best practices, including guidance from the American Petroleum Institute (API) and Ipieca. There is uncertainty associated with the emissions, reductions, and avoidance performance data due to variation in the processes and operations, the availability of sufficient data, quality of those data, and methodology used for measurement and estimation. Performance data may include rounding. Changes to the performance data may be reported as part of the Company’s annual publications as new or updated data and/or emission methodologies become available. We are working to continuously improve our performance and methods to detect, measure and address greenhouse gas emissions. ExxonMobil works with industry, including API and Ipieca, to improve emission factors and methodologies, including measurements and estimates.
    34. Science, Vol. 385, No. 6711, Climate policies that achieved major emission reductions: Global evidence from two decades: https://www.science.org/doi/10.1126/science.adl6547.