CO2 Emissions: Impact of Trucks in Transportation emissions

August 9, 2024
hydrogen in trucks transportation

While overall greenhouse gas emissions in the EU are decreasing, CO2 emissions from heavy-duty vehicles have been increasing every year since 2014, only decreasing in 2020 during the pandemic. The improvement in truck energy efficiency, made possible by the emergence of new fuels and technologies, is not enough to offset the increase in emissions due to the growing demand for freight transport.

Figures We'd Like to See Change

· Trucks are responsible for about 5% of global CO2 emissions, or 1.8 billion tons (1).

· In total, 99% of the EU's heavy-duty vehicle fleet (trucks, buses, and coaches) are currently equipped with a combustion engine (2).

What Measures at the European Level?

On February 14, the European Commission increased the decarbonization rates imposed on truck manufacturers: CO2 emissions will have to be reduced by 45% in 2030 compared to 2019, 65% in 2045 and then 90% in 2040. These new standards not only imply an intensification of the development of new zero-emission technologies but also the deployment of adequate infrastructure for recharging and refueling.

Going Green for Trucks!

Innovations mainly focus on the development of electric and hydrogen trucks (via fuel cells or hydrogen combustion engines).

· Many manufacturers (Tesla, Renault, Volvo, Iveco...) are entering the electric truck market, which have the advantages of operating without direct CO2 emissions and significantly reducing noise and odor pollution. However, their environmental footprint over the complete lifecycle is still debated.

· Hydrogen particularly attracts truck manufacturers due to its ability to offer solutions with greater autonomy and shorter charging times than electric versions. With its fuel cell truck, Hylico made a sensation at the last edition of the Hyvolution show in early February. The French start-up plans to operate the heavy-duty vehicle using a negative carbon fuel derived from biomass thermolysis. Another example, last December, the 40-ton truck "GOH!", running on green hydrogen, hit the Swiss roads.

(1) Source IEA, 2021.

(2) Source CITEPA, 2023.

CO2 Emissions: Impact of Air Transport on overall emissions
CO2 Emissions: Impact of Air Transport on overall emissions

Air transport is the second largest source of CO2 emissions in transportation after road transport. Indeed, in the space of 30 years, technical advancements have enabled the sector to halve emissions per passenger per kilometer. However, this is insufficient to counterbalance the increase in emissions due to the rise in air traffic.

Figures we'd like to see evolve

· Air transport emits nearly 2% of global CO2 emissions (1), or between 600 and 700 million tons per year according to sources, for a means of transport that only concerns 10% of the world population.

· It contributes 4.9% to global warming (1).

What measures at European and global levels?

Since 2012, the European Union regulates intra-EEA (European Economic Area) flights through its greenhouse gas emission allowance trading scheme (EU ETS).

It also requires a portion of Sustainable Aviation Fuels (SAFs) to be incorporated into the overall kerosene supply, with a progressive increase from 2% in 2025 to 63% in 2050.

At the global level, the EU is working with ICAO (International Civil Aviation Organization) to implement CORSIA (Carbon Offsetting and Reduction Scheme for International Aviation), a measure that encourages airlines to offset their emissions by financing green projects. Based on volunteer participation for a six-year pilot period, it will become mandatory for all airlines in 2027.

Going green in air transport!

· Biofuels and e-fuels, grouped under the SAFs label, can be an alternative to kerosene, but their cost, 2 to 5 times higher than that of kerosene, hampers their adoption. Another important point, the carbon footprint differs significantly from one biofuel to another, approaching that of kerosene in some cases.

· Beyond reducing direct emissions to zero, electric planes offer many other advantages, such as high reliability and very low noise emissions. However, the capacity and weight of batteries limit the development of these devices to short flights with few passengers. Swedish company Heart Aerospace is currently working on the development of the ES-30. This regional transport plane, which is scheduled to enter service in 2028, will accommodate up to 30 passengers, with a range of 200 km in electric mode and 400 km in hybrid mode.

· By 2035, Airbus aims to launch the first "ZEROe" hydrogen-powered plane. Before the launch of this device, many technical challenges need to be overcome, particularly concerning fuel storage and delivery, the need for lightweight, cost-effective cryogenic tanks, and the design of the plane itself.

Useful link: Calculate the amount of CO2 emitted during your flight

https://www.icao.int/environmental-protection/CarbonOffset/Pages/default.aspx

(1) Perlman, K. (2018). Contribution of the Global Aviation Sector to Achieving Paris Agreement Climate Objectives.

Read article
Optimizing Logistics for a Sustainable Future: The Role of Green Mobility Solutions
Optimizing Logistics for a Sustainable Future: The Role of Green Mobility Solutions

The logistics industry is undergoing a transformative shift towards sustainability, driven by the need to reduce carbon emissions and improve efficiency. Green mobility solutions, including hydrogen-powered vehicles, are at the forefront of this revolution. This article explores how these technologies are optimizing logistics and their benefits.

Understanding Green Mobility Solutions in Logistics

What Are Green Mobility Solutions?

Green mobility solutions refer to transportation methods that minimize environmental impact. In logistics, this includes the use of hydrogen fuel cell vehicles (HFCVs) and electric vehicles (EVs), and other low-emission technologies. These solutions aim to reduce greenhouse gas emissions, improve energy efficiency, and support sustainable supply chains.

Key Components of GreenLogistics

  1. Hydrogen Fuel Cell Vehicles (HFCVs): Vehicles that use hydrogen to generate electricity, emitting only water vapour.
  2. Electric Vehicles (EVs): Battery-powered vehicles that produce zero tailpipe emissions.
  3. Renewable Energy Integration: Using renewable energy sources to power logistics operations, including vehicle charging and facility operations.
  4. Efficient Route Planning: Leveraging advanced logistics software to optimize delivery routes and reduce fuel consumption.

Benefits of Green Mobility Solutions

Environmental Impact

Green mobility solutions play a crucial role in reducing the environmental footprint of logistics operations. For instance, HFCVs produce zero emissions while they consume green renewable hydrogen, helping to combat air pollution and mitigate climate change. By replacing traditional diesel and gasoline-powered vehicles with green alternatives, logistics companies can significantly lower their carbon emissions.

Enhanced Efficiency

Green mobility solutions often come with advanced technologies that enhance operational efficiency. For example, HFCVs can be integrated with smart logistics software to optimize routes, reduce idle times, and improve delivery accuracy. These efficiencies lead to faster delivery times and better resource utilization.

Conclusion

Green mobility solutions are transforming the logistics industry, offering significant environmental, economic, and operational benefits. By adopting hydrogen-powered vehicles, logistics companies can reduce their carbon footprint, achieve cost savings, and enhance efficiency. As the industry continues to evolve, embracing green mobility solutions is essential for building a sustainable future in logistics.

Read article
Back to all hydrogen insights