Trend analysis: Freight & logistics decarbonization — where the value pools are (and who captures them)

Freight transport accounts for approximately 8% of global CO2 emissions, yet the sector has only recently attracted the capital and regulatory attention needed to drive systemic change. With the global green logistics market projected to exceed $18 billion by 2028, the question for investors and operators is not whether freight decarbonization will happen but where the economic value concentrates and which players are best positioned to capture it.

Why It Matters

The freight and logistics sector moves over 11 billion tonnes of goods annually across road, rail, maritime, and air corridors. The International Transport Forum projects that without intervention, freight emissions could increase 22% by 2050 as trade volumes grow. Regulatory pressure is intensifying: the EU's inclusion of maritime shipping in the Emissions Trading System (ETS) from 2024, the International Maritime Organization's revised GHG strategy targeting net-zero emissions by around 2050, and the US EPA's Phase 3 heavy-duty vehicle emissions standards are reshaping cost structures. For shippers, carriers, and logistics providers, decarbonization is no longer optional: it is a cost management strategy, a customer retention tool, and increasingly a compliance requirement. Companies that build decarbonization capabilities early secure structural cost advantages as carbon pricing expands, while those that defer face rising fuel costs, regulatory penalties, and lost contracts from climate-conscious customers.

Key Concepts

Last-mile electrification refers to the deployment of battery electric vehicles for urban and suburban delivery operations, typically covering routes under 150 miles per day. Last-mile delivery is the most cost-effective segment to electrify due to short distances, predictable routes, and high fuel savings relative to diesel vans.

Sustainable aviation fuel (SAF) encompasses non-petroleum jet fuels produced from waste feedstocks, biomass, or synthetic processes. SAF is critical because aviation lacks viable battery-electric alternatives for medium and long-haul flights, making it the primary decarbonization pathway for air freight through at least 2040.

Green corridor initiatives are designated shipping routes where zero-emission fuel infrastructure, regulatory frameworks, and commercial incentives align to enable decarbonized maritime transport. The Clydebank Declaration, signed by over 20 countries, commits to establishing at least six green shipping corridors by 2025.

Multimodal optimization involves shifting freight from carbon-intensive modes (road and air) to lower-emission alternatives (rail and inland waterway) combined with digital tools that optimize routing, loading, and modal selection for emissions reduction alongside cost efficiency.

KPI	Current Benchmark	Leading Practice	Laggard Threshold
Fleet emissions intensity (gCO2/tonne-km)	60-120 (road)	<40 (electric/hybrid)	>150
Last-mile EV adoption rate	8-15% of fleet	>40%	<3%
SAF blending rate (% of total fuel)	1-3%	>10%	0%
Scope 3 freight emissions tracked (% of total)	25-40%	>80%	<10%
Modal shift ratio (rail/water vs. road)	20-30%	>50%	<15%
Carbon cost per shipment visibility	Partial	Full, real-time per SKU	None

What's Working

Electric last-mile delivery at scale. Amazon has deployed over 13,000 custom Rivian electric delivery vans across the US and Europe, with a target of 100,000 by 2030. DHL has committed 7 billion euros to green logistics through 2030, including 94,000 electric vehicles in its fleet. These deployments demonstrate that electric last-mile delivery achieves total cost of ownership parity with diesel in urban settings: lower fuel costs ($0.04-0.06 per mile vs. $0.25-0.35 for diesel), reduced maintenance (40% fewer moving parts), and route density advantages in congested cities. The data from Amazon's deployments shows 30-40% lower operating costs per package on electrified routes compared to diesel equivalents.

Maritime green corridor development. The Los Angeles-Shanghai green corridor, announced in 2023, has catalyzed investment in zero-emission vessel technologies and shore-side infrastructure. Maersk has ordered 25 methanol-capable container ships, with the first vessel (the 16,000 TEU Laura Maersk) already operational. CMA CGM is investing in LNG-powered vessels as a transitional fuel, with 77 LNG ships on order or in operation. The green corridor model works because it concentrates demand signals in specific trade lanes, giving fuel suppliers and port operators sufficient volume certainty to justify infrastructure investments.

Digital freight matching and emissions optimization. Flexport, Project44, and FourKites provide real-time visibility platforms that combine shipment tracking with carbon accounting. Flexport's carbon dashboard enables shippers to compare emissions across routing options before booking, revealing that simple modal shifts (air to ocean, truck to rail) can reduce per-shipment emissions by 80-95% with acceptable lead-time trade-offs. Convoy (acquired by Flexport in 2023) demonstrated that AI-driven load matching reduces empty miles by 35%, simultaneously cutting costs and emissions. These digital platforms are creating a transparency layer that enables market-based decarbonization decisions.

What's Not Working

Heavy-duty long-haul trucking electrification. Despite promising pilots from Tesla, Daimler, and Volvo, battery-electric Class 8 trucks face persistent challenges: range limitations (150-300 miles vs. 500+ miles for diesel), charging infrastructure gaps along highway corridors, payload penalties from heavy batteries (2,000-5,000 lbs of lost cargo capacity), and purchase prices 2-3x higher than diesel equivalents. The North American Council for Freight Efficiency reports that electric heavy-duty trucks achieve economic viability only on routes under 200 miles with depot-based charging, leaving approximately 70% of long-haul tonne-kilometres unaddressable by current battery technology.

SAF production scaling. Global SAF production reached approximately 600 million litres in 2024, representing less than 0.2% of total jet fuel consumption. The EU's ReFuelEU Aviation mandate requires 2% SAF blending by 2025, rising to 70% by 2050, but production capacity commitments fall far short of mandated volumes. Feedstock constraints are a primary bottleneck: used cooking oil and agricultural residues cannot scale to meet projected demand, while synthetic e-fuels (produced from green hydrogen and captured CO2) remain 3-6x more expensive than conventional jet fuel. Without a dramatic reduction in production costs or massive green hydrogen deployment, SAF mandates risk creating supply shortfalls and price spikes.

Fragmented emissions data across supply chains. Despite advances in digital freight platforms, most shippers still lack accurate Scope 3 emissions data for their logistics operations. The Global Logistics Emissions Council (GLEC) Framework provides a standardized methodology, but adoption remains inconsistent. A 2025 survey by the Smart Freight Centre found that only 28% of large shippers could calculate freight emissions at the shipment level with primary data (rather than spend-based estimates). Without granular emissions visibility, companies cannot effectively target decarbonization investments or verify progress against reduction commitments.

Key Players

Established Leaders

• Maersk: First major shipping line to order methanol-powered container vessels. Committed to net-zero emissions by 2040, a decade ahead of IMO targets.
• DHL Group: Investing 7 billion euros in sustainable logistics through 2030, including fleet electrification, SAF procurement, and green building certification for warehouses.
• IKEA: Pioneer in shipper-led freight decarbonization, achieving 18% absolute emissions reduction in goods transport since 2017 through modal shift, vehicle utilization, and carrier engagement.
• Union Pacific Railroad: Largest US freight railroad, investing in locomotive fuel efficiency and intermodal terminal expansion to capture truck-to-rail modal shift demand.

Emerging Startups

• Einride: Swedish autonomous electric freight company operating driverless electric trucks on public roads. Raised over $500 million and operates in the US and Europe.
• AMPLY Power: Provides charging-as-a-service for commercial and medium-duty electric fleets, removing upfront infrastructure costs for fleet operators.
• Nautilus Labs: AI-powered vessel performance optimization platform that reduces fuel consumption and emissions for ocean carriers by 5-10% through voyage optimization.
• Locomation: Develops autonomous relay convoy technology for long-haul trucking, using platooning to reduce fuel consumption by 10% on paired trucks.

Key Investors and Funders

• Breakthrough Energy Ventures: Invested in multiple freight decarbonization startups including Einride and CarbonCure, targeting technologies with gigaton-scale emissions reduction potential.
• Global Maritime Forum: Coordinates the Getting to Zero Coalition, a partnership of over 200 companies working to commercialize zero-emission vessels by 2030.
• Amazon Climate Pledge Fund: $2 billion corporate venture fund investing in logistics decarbonization including electric vehicles, sustainable packaging, and carbon measurement tools.

Where the Value Pools Are

Last-mile fleet electrification services. The market for electric commercial vehicles is projected to reach $212 billion by 2030. But the real value lies not in vehicle sales alone: charging infrastructure, fleet management software, energy-as-a-service contracts, and maintenance networks create recurring revenue streams that exceed vehicle margins. Companies offering integrated fleet-as-a-service solutions (vehicle, charging, software, energy management) capture 3-5x the revenue per vehicle compared to OEMs selling hardware alone.

Carbon-accounted logistics platforms. As Scope 3 reporting becomes mandatory under CSRD, SEC, and California disclosure rules, the demand for verified, shipment-level emissions data is exploding. Platforms that embed carbon accounting into booking and procurement workflows will become the default choice for enterprise shippers. The market for supply chain emissions management software is expected to exceed $2.8 billion by 2028, with the winners being platforms that integrate seamlessly with existing transportation management systems.

Alternative fuel production and distribution. The green methanol, ammonia, and SAF markets represent a combined addressable market exceeding $100 billion by 2035. The value concentrates in production facilities with secured feedstock supply and offtake agreements, not in speculative capacity announcements. First movers with operational plants and signed contracts from major shipping lines or airlines are capturing premium valuations, as demonstrated by European Energy's methanol supply agreement with Maersk.

Modal shift infrastructure. Intermodal terminal capacity is the binding constraint on truck-to-rail modal shift in both Europe and North America. Terminal operators and railroads investing in expanded intermodal facilities are positioned to capture growing demand as carbon pricing makes long-haul trucking progressively more expensive. The European Commission's Connecting Europe Facility is allocating 25.8 billion euros to sustainable transport infrastructure through 2027, creating co-investment opportunities for private capital.

Action Checklist

• Map your freight emissions profile by mode, lane, and carrier to identify the highest-impact decarbonization opportunities
• Pilot electric vehicles for last-mile and return-to-base routes where total cost of ownership already favours battery electric
• Negotiate SAF procurement agreements with airlines and fuel producers to secure supply ahead of blending mandates
• Evaluate modal shift potential for medium and long-distance lanes, comparing rail and intermodal options against direct trucking
• Implement a digital freight visibility platform with embedded carbon accounting to enable data-driven routing decisions
• Engage carriers on emissions reduction targets and include carbon performance metrics in procurement scorecards
• Monitor regulatory developments across jurisdictions, particularly EU ETS maritime expansion, EPA heavy-duty standards, and national SAF mandates

FAQ

Which freight segment is most cost-effective to decarbonize today? Last-mile urban delivery offers the strongest economics for immediate decarbonization. Electric vans and small trucks achieve total cost of ownership parity with diesel on routes under 100 miles per day, driven by lower fuel costs ($0.04-0.06/mile vs. $0.25-0.35/mile for diesel), reduced maintenance, and growing urban access restrictions on diesel vehicles. Companies with dense urban delivery networks see payback periods of 2-4 years on electric fleet investments.

How does carbon pricing affect freight cost structures? Under the EU ETS (which now covers maritime shipping), carbon costs add approximately $15-25 per container for trans-oceanic shipments at current allowance prices. As allowance prices rise toward the 100-150 euro per tonne range projected by 2030, carbon costs could represent 5-10% of total shipping costs for long-haul ocean freight and an even larger share for road transport. Companies with lower-emission operations gain a direct cost advantage over competitors with higher carbon intensity.

What role does hydrogen play in freight decarbonization? Hydrogen is most promising for heavy-duty, long-haul applications where battery weight and range limitations persist: long-distance trucking, maritime shipping (via ammonia or methanol), and potentially rail in regions without electrified track. However, green hydrogen production costs ($4-6/kg) remain 2-3x above the $2/kg threshold needed for cost parity with diesel. The timeline for competitive hydrogen freight is likely 2030-2035, contingent on electrolyzer cost reductions and renewable electricity scaling.

Are biofuels a viable bridge solution for freight? Biodiesel and renewable natural gas provide immediate emissions reductions (50-80% lifecycle CO2 reduction vs. fossil fuels) without requiring new vehicle or engine technology. They serve as effective bridge fuels for fleets that cannot yet electrify. However, sustainable feedstock supply is limited: the global supply of used cooking oil and waste fats can support only a fraction of total freight fuel demand. Biofuels work best as part of a portfolio approach rather than a long-term primary decarbonization pathway.

How should investors evaluate freight decarbonization opportunities? Focus on three criteria: regulatory tailwinds (markets with mandatory emissions reporting, carbon pricing, or clean vehicle zones), technology readiness (solutions deployable today vs. those requiring further R&D), and recurring revenue models (charging-as-a-service, emissions data platforms, fuel supply contracts). The highest-return opportunities combine regulatory lock-in with platform economics, particularly digital freight platforms and fleet electrification services where switching costs create customer retention.

Sources

1. International Transport Forum. "ITF Transport Outlook 2025: Freight Transport Emissions Projections." OECD/ITF, 2025.
2. International Maritime Organization. "2023 IMO Strategy on Reduction of GHG Emissions from Ships." IMO, 2023.
3. Smart Freight Centre. "Global Logistics Emissions Council Framework: Adoption and Implementation Report." SFC, 2025.
4. BloombergNEF. "Electric Vehicle Outlook 2025: Commercial Vehicles." BNEF, 2025.
5. European Commission. "ReFuelEU Aviation: Sustainable Aviation Fuels Regulation Implementation Update." EC, 2025.
6. North American Council for Freight Efficiency. "Electric Truck Evaluation: Real-World Performance Data." NACFE, 2025.
7. Carbon Tracker Initiative. "Shipping and the Energy Transition: Asset Stranding Risk in Maritime Transport." Carbon Tracker, 2024.
8. McKinsey & Company. "The Future of Freight: Decarbonization Pathways and Value Creation." McKinsey, 2025.