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Global Sustainability Agenda #34: Biofuels: Fueling the Future of Net Zero Targets

Fueling the Future of Net Zero Targets

Global Sustainability Reality

A hotter world is a negative-sum game (Financial Times)

Climate Change Made Deadly Heat Wave 35 Times More Likely, Study Finds (The Weather Channel)

Global survey reveals ‘truly astonishing’ consensus for stronger climate action (United Nations)

NASA Releases Updated Climate Change Adaptation, Resilience Plan (NASA)

Climate Change To Shift Tropical Rains Northward – Eurasia Review (Eurasia Review)

In Charts: Energy transition ‘pragmatists’ say Paris Agreement could still be within reach (Sustainable Views)

FACT SHEET: Biden-Harris Administration Releases Agency Climate Adaptation Plans, Demonstrates Leadership in Building Climate Resilience (The White House)

Extreme heat waves aren’t ‘just summer’: How climate change is heating up the weather, and what we can do about it (The Conversation)

We’ve been accidentally cooling the planet — and it’s about to stop (The Washington Post)

See them while you can: Climate change is reshaping iconic US destinations (USA Today)

Half The Globe Is Voting In 2024 – 80% Want Climate Action, New UN Study (Forbes)

Climate Change And Sea Level Rise Pose An Acute Challenge For Cities With Combined Sewer Systems (Eurasia Review)

Can Scientist Leaders Help Countries Fight Climate Change More Effectively? (Forbes)

Global Sustainability Business Impact

Industry Decarbonization Market Outlook 1H 2024 (Bloomberg NEF)

Failure to meet surging energy demand will jeopardize economic growth, utility execs warn (CNBC)

Air freight greenhouse gas emissions up 25% since 2019, analysis finds (The Guardian)

Norway and Singapore partner to enhance green maritime collaboration (

https://en.portnews.ru/news/364435

It’s The 21st Century Energy Economy, Stupid—Undercut By Dysfunction (Forbes)

The ‘Green Energy Transition’ That Wasn’t (Wall Street Journal)

Can the shipping industry chart a course that delivers for the planet? (Reuters)

BHP Says Carbon Offsets Remain an Option on Road to Reducing Emissions (Wall Streen Journal)

US energy transition faces ‘pivotal moment’ in 2024 election (S&P Global)

DOE Announces $16 Million to Advance Technologies that Transform Carbon Emissions into Valuable Products (Department of Energy)

Can technology bridge transport’s transition gap? (Infrastructure Investor)

How the industrial sector is turning net zero goals into practice (World Economic Forum)

Industrial Decarbonization Can’t Afford to Wait for a Silver Bullet (Environmental Energy Leader)

The Path Forward

Biofuels are crucial for decarbonizing road transport, aviation, and shipping. Traditionally derived from food crops and increasingly from waste biomass, biofuels offer low-carbon, drop-in replacements for conventional liquid fuels. Biodiesel and ethanol, for example, displace millions of barrels of oil demand annually. Meanwhile, synthetic, hydrogen-based e-fuels are gaining traction, supported by growing public policies. According to the International Energy Agency, sustainable biofuel production must triple by 2030 to stay on track for net zero emissions by 2050. The demand for sustainable aviation fuel (SAF) is projected to see the most significant increase.

Europe’s “Fit for 55” policy package and the US Inflation Reduction Act (IRA) are the largest energy transition policies globally. They are expected to drive the consumption of low-carbon fuels and more than double the use of biofuels and alternative liquids by 2050.

Source: S&P Global, 2024

Key Biofuel Production Regions

Several regions have become biofuel production hubs, driving innovation, investment, and policy development:

  • North America: Rapid growth in biofuel production is supported by government incentives, agricultural abundance, and a robust industrial base. Interest in using ethanol as a feedstock for SAF is growing alongside biomass-based renewable diesel.
  • Latin America: Brazil leads in ethanol production from sugarcane.
  • Asia: Indonesia, Malaysia, and Thailand are key producers of palm oil-based biodiesel. China has rapidly expanded its biofuel production capacity in response to environmental concerns and government incentives.
  • Europe: Ambitious renewable energy targets and stringent environmental regulations drive biofuel policies. Countries like Germany, France, and the Netherlands invest heavily in biofuel infrastructure and research.

Biofuel Challenges

Scaling up biofuel production requires addressing several challenges, including ensuring the availability of sustainable feedstocks on a large scale, developing cost-effective production methods, and making significant investments in infrastructure. Overcoming these challenges is essential for the widespread adoption of biofuels as a sustainable energy source.

Current biofuel production relies heavily on conventional feedstocks like sugar cane, corn, and soybeans. Expanding to advanced feedstocks is critical to minimize impacts on land use, food and feed prices, and other environmental factors.

Controversies exist regarding production’s impact on food security and land use. Critics contend that dedicating land to biofuel crops could increase food prices and create competition for agricultural resources. However, proponents argue that second-generation biofuels and sustainable land use practices can alleviate these concerns.

Non-food feedstocks dominate biofuel production, such as used cooking oils and waste animal fats. However, new technologies are needed to expand the use of non-food crop feedstocks. Ethanol and fatty acid methyl esters (FAME) biodiesel are produced via established pathways, while renewable diesel and SAF are ramping up, primarily through hydrotreated esters and fatty acids (HEFA). To meet demand, the industry is turning to costlier processes like cellulosic ethanol and biomass-based Fischer-Tropsch. Policymakers hope these newer technologies will become more affordable and bridge the gap between advanced biofuels and fossil fuels.

Integration of Biofuels into Existing Energy Systems

Biofuels hold significant potential for replacing fossil fuels across various sectors. In transportation, blending biofuels with gasoline or diesel can reduce the carbon footprint of vehicles. Moreover, aviation biofuels derived from sustainable feedstocks show promise in cutting greenhouse gas emissions in the aviation industry.

However, integrating biofuels into existing energy systems presents challenges. Infrastructure modifications may be necessary to accommodate the distribution and storage of biofuels. Additionally, for widespread adoption, the economics of biofuel production must be competitive with fossil fuels.

Source: S&P Global Commodity Insights

Biofuels in Transport

Biofuel consumption, driven by regulatory efforts, has primarily been concentrated in road transport. In 2023, 99% of the 3 million barrels per day (b/d) of biofuels used in transportation were in road transport. This trend is expected to change as emissions reduction legislation increasingly targets aviation and shipping. Biofuel consumption in road transport is projected to grow to nearly 4 million b/d by 2040 but will decline post-2040 due to reduced road fuel demand. Mechanisms like CORSIA, ReFuelEU Aviation, and the US IRA will boost biofuel use in aviation, with SAF consumption projected to exceed 2.1 million b/d by 2050.

Biofuel uptake in shipping will remain limited, with other options like methanol and ammonia being explored for emission reductions.

Biofuels Supply Outlook

2023 global biofuel production was 3 million b/d, mainly ethanol (63%) and FAME (28%). Renewable diesel and SAF accounted for less than 10%. Total biofuel output is expected to double by 2050, with significant growth in renewable diesel and SAF. Ethanol production will peak in the mid-2030s and then decline. FAME supply will grow steadily, while SAF and renewable diesel production will ramp up quickly. By 2050, America’s share of global biofuel production will decrease, while Asia and Europe will expand their capacity.

Marine Sector Competition

Interest in using biofuels for marine propulsion is growing, driven by climate targets and the search for decarbonization pathways. However, biofuels are expected to play a limited role in decarbonizing shipping compared to alternatives like methanol and ammonia.

Current Trends and Developments

Ongoing research, technological advancements, policy support, and collaborations are driving biofuel adoption. Challenges include scaling up production, sustainable feedstock availability, and cost-effective methods.

Future Directions

In the Net Zero Scenario, biofuel use in transport will rise significantly by 2030, with a greater share produced from waste, residues, and non-food crops. Aviation biofuels, or biojet kerosene, will need to make substantial strides to align with net zero goals.

The future looks promising, with potential growth driven by technological advancements and supportive policies. Continued investment and collaboration will be essential for achieving a sustainable energy future.

Beatriz Canamary

Beatriz Canamary is a consultant in Sustainable and Resilient Business, Doctor and Professor in Business, Civil Engineer, specialized in Mergers and Acquisitions from the Harvard Business School, and mom of triplets. Today she is dedicated to the effective application of the UN Sustainable Development Goals in Multinationals.

She is an ESG enthusiast and makes it possible to carry out sustainable projects, such as energy transition and net-zero carbon emissions. She has +15 years of expertise in large infrastructure projects.

Member of the World Economic Forum, Academy of International Business and Academy of Economics and Finance.