Myths vs. realities: Freight & logistics decarbonization — what the evidence actually supports

Freight transport accounts for approximately 8% of global CO2 emissions and roughly 40% of all transport-related emissions, yet the sector's overall emissions intensity has barely budged over the past decade, declining just 1.2% per year against the 6 to 8% annual reduction needed for Paris-aligned trajectories according to the International Transport Forum's 2025 Outlook. In the EU, where road freight alone generates more than 200 million tonnes of CO2 annually, myths about zero-emission trucking, modal shift potential, and sustainable aviation fuel are shaping procurement decisions and capital allocation worth tens of billions of euros. Distinguishing credible pathways from wishful thinking is essential for sustainability professionals navigating this transition.

Why It Matters

The EU's freight sector faces a convergence of regulatory and market pressures that make decarbonization unavoidable. The revised CO2 emission standards for heavy-duty vehicles mandate a 45% reduction by 2030 and 90% by 2040 from 2019 baselines. The EU Emissions Trading System (ETS) now covers maritime shipping, and the ReFuelEU Aviation regulation requires sustainable aviation fuel (SAF) blending at 2% in 2025, rising to 70% by 2050. Meanwhile, corporate Scope 3 reporting requirements under the CSRD mean that shippers and retailers must measure, disclose, and ultimately reduce emissions embedded in their logistics chains.

The financial stakes are significant. The European Commission estimates that decarbonizing EU freight transport will require cumulative investment of EUR 500 billion to EUR 700 billion through 2050, covering vehicle fleet turnover, charging and refueling infrastructure, grid reinforcement, and fuel production capacity (European Commission, 2025). Misallocating this capital based on myths rather than evidence will slow the transition and destroy shareholder value.

However, the freight decarbonization space is saturated with optimistic projections from OEMs, fuel producers, and technology vendors whose commercial interests do not always align with evidence-based analysis. Sustainability professionals responsible for transport procurement, fleet strategy, and logistics network design need a clear-eyed assessment of what the data actually supports.

Key Concepts

Freight decarbonization encompasses the reduction of greenhouse gas emissions from the movement of goods by road, rail, sea, air, and inland waterway. Key levers include powertrain electrification (battery electric and hydrogen fuel cell vehicles), alternative fuels (biofuels, e-fuels, SAF, green methanol, ammonia), modal shift from road to rail and waterway, operational efficiency improvements (route optimization, load consolidation, eco-driving), and demand-side measures (nearshoring, inventory strategy, packaging reduction).

The distinction between well-to-wheel and tank-to-wheel emissions is critical. A battery electric truck has zero tank-to-wheel emissions, but its well-to-wheel footprint depends entirely on the carbon intensity of the electricity used for charging. Similarly, a hydrogen fuel cell truck is only as clean as the hydrogen production pathway, with grey hydrogen from natural gas steam reforming delivering negligible lifecycle emissions benefit over diesel.

Myth 1: Battery Electric Trucks Can Replace Diesel Across All Road Freight Segments by 2030

The claim that battery electric trucks (BETs) will achieve cost parity with diesel across all segments by 2030 is frequently repeated by OEMs and clean transport advocates. The evidence supports a more nuanced picture. A 2025 total cost of ownership (TCO) analysis by the International Council on Clean Transportation (ICCT) found that BETs achieve TCO parity with diesel trucks in urban delivery (under 150 kilometers daily range) and regional distribution (150 to 300 kilometers) in most EU markets today, driven by lower energy and maintenance costs. However, for long-haul operations exceeding 500 kilometers daily, BETs face a 15 to 25% TCO premium due to larger battery requirements, payload penalties of 1.5 to 3 tonnes, and dependence on public megawatt charging infrastructure that remains sparse (ICCT, 2025).

The Fraunhofer Institute for Systems and Innovation Research analyzed real-world operating data from 87 electric trucks deployed across Germany, France, and the Netherlands over 18 months. Urban and regional BETs achieved 92 to 97% uptime and met daily operational requirements in 94% of cases. Long-haul BETs, by contrast, achieved 78% uptime, with charging availability and dwell time at public stations responsible for 60% of downtime events (Fraunhofer ISI, 2025). The reality: BETs are commercially viable for urban and regional freight today, but long-haul remains 3 to 5 years from competitive parity for most operators in the EU.

Myth 2: Hydrogen Trucks Will Dominate Long-Haul Freight

Hydrogen fuel cell electric trucks are often positioned as the inevitable solution for long-haul freight where battery weight and charging time become constraints. The evidence is far less certain. As of early 2026, the total number of hydrogen trucks operating in Europe is approximately 400 units across all OEMs, compared to more than 12,000 battery electric trucks (European Automobile Manufacturers' Association, 2026). Green hydrogen production costs in Europe remain at EUR 4 to 6 per kilogram, versus the EUR 2 per kilogram threshold that the Hydrogen Council estimates is needed for freight TCO competitiveness with diesel (Hydrogen Council, 2025).

Infrastructure is the binding constraint. The EU's Alternative Fuels Infrastructure Regulation (AFIR) mandates hydrogen refueling stations every 200 kilometers along TEN-T core network corridors by 2030, but construction progress is substantially behind schedule. As of January 2026, only 142 of the estimated 700 stations needed to meet the 2030 target are operational or under construction (Transport & Environment, 2026). Each station costs EUR 2 to 5 million, and utilization rates at existing stations average below 15%.

The reality: hydrogen trucks may play a role in specific long-haul corridors and heavy-duty applications (mining, construction), but the assumption that they will dominate long-haul freight rests on infrastructure deployment and cost reduction trajectories that current evidence does not support. Battery electric technology with megawatt charging is advancing faster and may capture much of the long-haul segment that was once considered hydrogen territory.

Myth 3: Sustainable Aviation Fuel Can Decarbonize Air Freight Without Trade-offs

Sustainable aviation fuel is widely promoted as the primary pathway to decarbonize aviation, including the air freight sector that accounts for approximately 2% of freight tonne-kilometers but 25 to 30% of freight transport emissions. The myth is that SAF represents a straightforward, drop-in replacement for conventional jet fuel with 70 to 80% lifecycle emissions reductions and no significant constraints on scale.

The reality involves substantial trade-offs. Current global SAF production capacity is approximately 1.5 million tonnes per year, representing less than 0.5% of total jet fuel demand (International Air Transport Association, 2026). ReFuelEU mandates will drive EU demand to approximately 5 million tonnes by 2030, but credible production capacity projections from the European SAF Alliance suggest only 3 to 4 million tonnes will be available, creating a supply gap.

Lifecycle emissions reductions vary dramatically by feedstock and pathway. Hydroprocessed esters and fatty acids (HEFA) SAF from used cooking oil delivers 65 to 80% reductions, but used cooking oil supply is constrained and already subject to fraud and adulteration. Power-to-liquid (PtL) e-kerosene offers 85 to 95% reductions when produced with renewable electricity, but costs EUR 3,000 to 5,000 per tonne compared to EUR 800 to 1,000 for conventional jet fuel. SAF blending mandates will increase air freight costs by 5 to 15% through 2030, creating competitive pressure to shift time-insensitive air cargo to surface modes (CE Delft, 2025).

Myth 4: Modal Shift From Road to Rail Will Deliver Large Emissions Reductions Quickly

European policymakers frequently cite modal shift from road to rail as a major decarbonization lever, with the EU's Sustainable and Smart Mobility Strategy targeting a 50% increase in rail freight by 2030 and a doubling by 2050. Rail freight produces 75 to 80% fewer emissions per tonne-kilometer than road freight in Europe, making modal shift appear straightforward.

The evidence shows persistent structural barriers. EU rail freight volumes have been essentially flat for a decade, fluctuating between 400 and 420 billion tonne-kilometers annually despite significant policy support. A 2025 European Court of Auditors report found that EUR 1.1 billion in EU funding for rail freight capacity and interoperability improvements between 2014 and 2023 produced "limited measurable impact on modal shift" due to poor cross-border interoperability, inconsistent signaling systems (ERTMS deployment covers only 13% of the EU network), and terminal capacity constraints at major logistics hubs (European Court of Auditors, 2025).

Rail freight works well for bulk commodities over long distances: coal, grain, steel, chemicals, and containers on fixed corridors. It struggles with the time-sensitive, fragmented, and last-mile-dependent shipments that characterize modern e-commerce and just-in-time supply chains. The reality: modal shift will contribute to freight decarbonization but is a slow-moving lever that will not deliver transformative emissions reductions within this decade.

What's Working

Urban delivery electrification is advancing rapidly. Amazon has deployed more than 10,000 electric delivery vans across Europe, with Deutsche Post DHL operating over 30,000 electric StreetScooter and successor vehicles. Data from DHL's European fleet shows that electric delivery vehicles reduce per-parcel emissions by 60 to 75% on average, with TCO 8 to 12% lower than diesel equivalents in urban operations (DHL Group, 2025).

Route and load optimization powered by machine learning is delivering measurable reductions without fleet replacement. Maersk's logistics subsidiary reports that AI-driven consolidation and routing reduced empty running by 18% and total emissions per container-kilometer by 12% across its European road operations in 2025. These software-driven gains require minimal capital expenditure and are accessible to small and mid-size operators through SaaS platforms.

Intermodal solutions combining rail trunk hauls with electric truck first and last mile are demonstrating viability on specific corridors. DB Cargo's "smart intermodal" service connecting Rotterdam to Duisburg to Milan achieved 62% lower emissions per tonne-kilometer than full-road transport, with transit time competitive within a 12-hour window (DB Cargo, 2025).

What's Not Working

Public megawatt charging infrastructure for heavy-duty vehicles remains the critical bottleneck. The EU's AFIR requires megawatt charging stations along TEN-T corridors by 2025, but fewer than 50 stations are operational. Grid connection lead times of 2 to 4 years for the 1 to 5 MW power demands of a truck charging depot are delaying fleet electrification plans even among willing early adopters.

Green shipping fuels are stuck in a chicken-and-egg dynamic. Green methanol and ammonia production capacity is being built, but vessel orders for dual-fuel ships are contingent on fuel availability guarantees that producers are reluctant to offer without long-term offtake commitments. The result is that the global fleet of ships capable of running on green fuels remains below 2% of total capacity.

Voluntary commitments from shippers to pay green premiums for low-carbon logistics have proven fragile. A 2025 survey by the Smart Freight Centre found that while 78% of large EU shippers have emissions reduction targets covering logistics, only 23% are willing to pay more than a 3% cost premium for verifiably lower-emission transport (Smart Freight Centre, 2025). This gap between ambition and willingness to pay constrains the business case for operators investing in zero-emission vehicles and fuels.

Key Players

Established: Daimler Truck (battery electric and hydrogen trucks), Volvo Group (electric truck production at scale), Maersk (green methanol shipping, logistics optimization), DB Cargo (intermodal freight solutions), DHL Group (electric last-mile delivery fleet), IKEA (zero-emission logistics commitments across supply chain)

Startups: Einride (autonomous electric freight pods), Volta Trucks (urban electric freight), H2 Green Steel (green hydrogen production for transport), Evos (electric truck-as-a-service leasing), Zeroavia (hydrogen-electric aviation powertrains)

Investors: European Investment Bank (AFIR infrastructure financing), Breakthrough Energy Ventures (sustainable fuels and electric heavy-duty vehicles), SWEN Capital Partners (green logistics infrastructure funds), Hy24 (hydrogen infrastructure investment)

Action Checklist

• Map your freight network by segment (urban, regional, long-haul) and identify routes where battery electric trucks already achieve TCO parity
• Pilot electric truck deployments on 3 to 5 urban and regional routes with depot charging before scaling
• Negotiate power grid connection timelines for depot charging infrastructure at least 24 months ahead of planned fleet transitions
• Audit SAF procurement claims for feedstock origin, lifecycle emissions methodology, and chain-of-custody certification
• Evaluate intermodal options on trunk routes exceeding 500 kilometers where rail infrastructure and terminal capacity exist
• Implement route and load optimization software to capture 10 to 15% emissions reductions from existing diesel fleets without capital expenditure
• Include green freight premium provisions in logistics contracts to signal demand and support supplier investment cases

FAQ

Q: What emissions reduction can a typical EU shipper achieve by 2030 with commercially available solutions? A: A realistic target for a large EU shipper with diverse freight requirements is 25 to 40% reduction from 2020 baselines by 2030. This is achievable through electrification of urban and regional fleets (covering 40 to 50% of shipments), operational optimization across all modes (10 to 15% intensity reduction), selective modal shift on suitable corridors (5 to 10% additional reduction), and SAF blending for air freight as mandated. Claims of 50% or greater reductions by 2030 typically rely on assumptions about hydrogen trucking availability or SAF production capacity that the evidence does not yet support.

Q: How should sustainability professionals evaluate OEM claims about zero-emission truck performance? A: Demand real-world operating data, not test-track results. Key metrics to request include: actual payload capacity versus rated capacity (battery weight reduces payload by 1.5 to 3 tonnes), real-world range under loaded conditions in varying weather (winter range drops 15 to 30% versus rated range), uptime percentage including charging dwell time, and maintenance cost data beyond the first year. Compare OEM claims against independent data from organizations such as the ICCT, Fraunhofer ISI, and the Smart Freight Centre's GLEC Framework.

Q: Is it better to invest in fleet electrification or operational efficiency first? A: For most operators, operational efficiency improvements should come first because they require lower capital expenditure, deliver returns within months rather than years, and reduce the total fleet size needed, which in turn lowers the cost of subsequent electrification. Route optimization, load consolidation, eco-driving training, and aerodynamic retrofits can collectively reduce emissions by 15 to 25% from existing diesel fleets. These gains also reduce total energy demand, meaning fewer electric trucks and less charging infrastructure are needed when electrification proceeds.

Q: What regulatory changes should EU freight operators prepare for in the next 3 to 5 years? A: The most impactful near-term regulations include: the EU heavy-duty CO2 standards requiring 45% reduction by 2030 (effectively mandating zero-emission vehicle sales at 30 to 40% of new registrations), AFIR mandating public charging and hydrogen refueling infrastructure along TEN-T corridors, FuelEU Maritime requiring progressive reductions in shipping fuel carbon intensity starting 2025, and CSRD requirements that will make Scope 3 logistics emissions reportable for large companies. Additionally, several EU member states and cities are implementing zero-emission zones that will restrict diesel truck access to urban cores by 2028 to 2030.

Sources

• International Transport Forum. (2025). ITF Transport Outlook 2025: Freight Transport Emissions Trajectories. Paris: OECD/ITF.
• International Council on Clean Transportation. (2025). Total Cost of Ownership Analysis: Battery Electric vs. Diesel Trucks in Europe. Berlin: ICCT.
• Fraunhofer Institute for Systems and Innovation Research. (2025). Real-World Performance of Electric Trucks in European Operations: 18-Month Field Study. Karlsruhe: Fraunhofer ISI.
• European Automobile Manufacturers' Association. (2026). Zero-Emission Heavy-Duty Vehicle Registration Data: Q4 2025. Brussels: ACEA.
• Hydrogen Council. (2025). Hydrogen for Heavy-Duty Transport: Cost Competitiveness Roadmap. Brussels: Hydrogen Council.
• Transport & Environment. (2026). AFIR Implementation Tracker: Charging and Hydrogen Infrastructure Progress Report. Brussels: Transport & Environment.
• CE Delft. (2025). Sustainable Aviation Fuel Cost Impact on European Air Freight: Scenario Analysis. Delft: CE Delft.
• European Court of Auditors. (2025). EU Support for Rail Freight: Special Report on Modal Shift Progress. Luxembourg: ECA.
• Smart Freight Centre. (2025). Green Freight Demand Survey: Shipper Willingness to Pay for Low-Carbon Logistics. Amsterdam: SFC.
• European Commission. (2025). Investment Needs for Freight Transport Decarbonization in the EU: 2025-2050. Brussels: DG MOVE.