Case study: Freight & logistics decarbonization — a startup-to-enterprise scale story

Freight transportation accounts for roughly 8% of global greenhouse gas emissions and 29% of all transport-related CO2, yet until 2020 the sector operated with virtually no commercially viable zero-emission alternatives for long-haul routes. By 2025, the global green logistics technology market reached $48.7 billion, growing at a compound annual rate of 23.4% since 2021 (McKinsey, 2025). This case study traces the journey of startups that attacked this problem from different angles: fleet electrification, route optimization software, and alternative fuels, examining how they found product-market fit, secured enterprise contracts, and navigated the operational realities of decarbonizing one of the hardest-to-abate sectors.

Why It Matters

The freight and logistics sector moves 80% of global trade by volume and generates approximately 2.7 gigatons of CO2 annually (International Transport Forum, 2025). Regulatory pressure is accelerating: California's Advanced Clean Fleets rule requires all drayage trucks entering ports to be zero-emission by 2035, the European Union's CO2 standards for heavy-duty vehicles mandate a 45% reduction by 2030 relative to 2019 baselines, and the International Maritime Organization's revised greenhouse gas strategy targets a 30% absolute reduction in shipping emissions by 2030. Corporate commitments amplify demand: as of Q1 2026, more than 220 companies representing $14 trillion in combined revenue have set Science Based Targets for their Scope 3 transportation emissions, creating contractual pressure on carriers and logistics providers to demonstrate verifiable carbon reductions.

For startups, this convergence of regulation, corporate procurement mandates, and technology maturation creates a rare alignment of supply-side readiness and demand-side urgency. The companies that navigated this transition successfully share common traits: they solved measurement before mitigation, they started with fleet segments where total cost of ownership (TCO) favored clean alternatives, and they built enterprise sales motions around compliance timelines rather than voluntary sustainability commitments.

Key Concepts

Scope 3 freight emissions: The indirect emissions generated by transporting goods across supply chains. For consumer goods companies, freight typically represents 15 to 30% of total Scope 3 emissions, making it a primary target for corporate decarbonization programs.

Total cost of ownership parity: The point at which zero-emission trucks or alternative fuel solutions match or undercut diesel on a per-mile basis when accounting for fuel, maintenance, insurance, and residual value. BloombergNEF estimates that battery-electric trucks reached TCO parity with diesel for urban delivery routes under 150 miles in 2024, while long-haul routes above 500 miles remain 12 to 18% more expensive (BloombergNEF, 2025).

Carrier sustainability scoring: Enterprise shippers increasingly rank logistics providers using emissions-per-ton-mile metrics. Platforms that automate this scoring and integrate it into transportation management systems (TMS) have become the connective tissue between shipper mandates and carrier operations.

Green corridor: A designated trade route where zero-emission shipping or trucking infrastructure is deployed at scale, typically through public-private partnerships. The Clydebank Declaration, signed by 24 countries, has identified 27 green shipping corridors globally as of 2026.

What's Working

The most successful freight decarbonization startups share a common playbook: they entered through measurement and visibility, then expanded into optimization and fleet transition. Einride, a Swedish autonomous electric transport company founded in 2016, exemplifies this trajectory. The company initially developed autonomous electric freight pods for controlled logistics environments such as factory yards and port terminals. By 2022, Einride had pivoted toward a freight-as-a-service model, offering enterprise shippers a complete package of electric trucks, route optimization software, charging infrastructure management, and verified emissions reporting. The company secured enterprise contracts with Maersk, Lidl, and GE Appliances, deploying over 300 electric trucks across North America and Europe by Q4 2025. Einride's revenue grew from $12 million in 2022 to $187 million in 2025, with the company raising $510 million in total funding including a $150 million Series C led by Temasek in 2024 (Einride, 2025).

Einride's key insight was that enterprise shippers did not want to buy trucks: they wanted guaranteed emissions reductions with predictable costs per ton-mile. The freight-as-a-service model eliminated the capital expenditure barrier, the charging infrastructure complexity, and the operational risk of managing a new vehicle technology. Shippers paid a per-mile rate that was initially 8 to 15% higher than diesel equivalents but included a verified carbon reduction certificate for each shipment, turning the premium into a quantifiable Scope 3 reduction that could be reported to investors and regulators.

Convoy, the Seattle-based digital freight network, took a different approach. Rather than replacing trucks, Convoy's algorithms reduced empty miles: the distance trucks travel without cargo. In the US trucking industry, trucks run empty approximately 35% of the time, generating an estimated 87 million metric tons of unnecessary CO2 annually. Convoy's machine learning platform matched loads to available trucks in real time, reducing empty miles by 45% for participating carriers. Before its acquisition by Flexport in 2023, Convoy had processed over $4 billion in freight transactions and documented emissions savings of 320,000 metric tons of CO2 over its operational history (Flexport, 2024). The acquisition validated the strategic value of route optimization as an enterprise logistics tool, with Flexport integrating Convoy's technology into its global forwarding platform serving over 10,000 enterprise shippers.

Locomation, a Pittsburgh-based startup, pursued autonomous truck platooning: linking two trucks electronically so the rear vehicle follows the lead truck without an active driver. Platooning reduces aerodynamic drag by 10 to 15%, cutting fuel consumption proportionally, while the autonomous following capability effectively doubles driver productivity. Locomation began commercial operations with Wilson Logistics in 2023, deploying paired trucks on Interstate 10 between Phoenix and Tucson. The company demonstrated a 12.3% fuel consumption reduction in real-world operations and secured contracts with three of the top 20 US truckload carriers by mid-2025, with its technology deployed on over 1,200 truck pairs covering 85 million miles annually (Locomation, 2025).

What's Not Working

Fleet electrification beyond urban and regional routes remains constrained by charging infrastructure gaps. The National Renewable Energy Laboratory's 2025 assessment found that only 2,100 of the estimated 14,000 public charging stations needed for interstate heavy-duty electric trucking were operational, with an additional 3,800 in various stages of permitting and construction (NREL, 2025). The median time from site selection to energized charger for a heavy-duty charging depot is 22 months, driven primarily by utility interconnection timelines and permitting delays. Several electric truck startups, including Lordstown Motors (bankrupt in 2023) and Nikola (Chapter 11 in 2024), failed in large part because they underestimated the infrastructure buildout timeline and attempted to sell vehicles before the charging ecosystem could support them.

Hydrogen fuel cell trucks, once positioned as the solution for long-haul routes, have encountered persistent cost and infrastructure challenges. Green hydrogen prices in North America averaged $6.50 to $8.00 per kilogram in 2025, compared to the $2.00 to $3.00 per kilogram needed for TCO parity with diesel at current truck efficiency levels. Hyundai's XCIENT fuel cell truck program in Switzerland, the largest commercial deployment of hydrogen trucks globally with 47 units, achieved only 61% fleet availability in 2024 due to hydrogen station downtime and cold-weather performance issues (Hyundai, 2025). The technology remains promising for specific corridors where hydrogen infrastructure is concentrated, but the broad rollout that industry optimists projected for 2025 has not materialized.

Data standardization across the freight emissions measurement ecosystem remains fragmented. At least 14 competing methodologies exist for calculating freight emissions, producing results that can vary by 30 to 50% for the same shipment depending on allocation methods, emission factors, and system boundaries. The Global Logistics Emissions Council (GLEC) Framework, now endorsed by the Smart Freight Centre and adopted by CDP for supply chain reporting, is gaining traction but still covers only an estimated 40% of global freight transactions by volume (Smart Freight Centre, 2025). Enterprise shippers report spending 200 to 400 hours per quarter reconciling emissions data from different carriers using different calculation methodologies, creating demand for standardized platforms but also resistance from carriers who benefit from methodological ambiguity.

Sustainable aviation fuel (SAF) for air freight has scaled slower than projected. Global SAF production reached 1.9 billion liters in 2025, covering just 0.53% of total aviation fuel demand. Air freight, which represents 35% of global trade by value, remains almost entirely dependent on conventional jet fuel. SAF premiums of 2x to 4x over conventional jet fuel make voluntary adoption economically challenging, and the book-and-claim system used for SAF crediting faces credibility questions from environmental groups and some corporate buyers.

Key Players

Established Companies

Maersk: The world's second-largest container shipping company ordered 25 methanol-fueled vessels and began operating the first, the Laura Maersk, in 2024. Maersk committed $1.4 billion to green methanol procurement agreements.

IKEA: Transitioned 72% of its last-mile deliveries to zero-emission vehicles across 30 markets by 2025 through partnerships with electric van operators and cargo bike networks.

DHL Group: Invested $7.8 billion in its GoGreen Plus program, deploying 33,000 electric delivery vehicles and offering carbon-insetting options on 65% of its express and parcels volume.

Startups

Einride: Freight-as-a-service provider operating 300+ electric trucks across North America and Europe, with $510 million in total funding.

Locomation: Autonomous truck platooning technology deployed on 1,200+ truck pairs, delivering 12.3% fuel savings on long-haul routes.

Turntide Technologies: Electric drivetrain manufacturer for medium-duty commercial vehicles, with $650 million in total funding and partnerships with 8 major fleet operators.

Investors

Breakthrough Energy Ventures: Led or co-led investments in 14 freight decarbonization startups totaling over $1.2 billion since 2020.

Temasek: Singapore sovereign wealth fund that led Einride's $150 million Series C and has deployed $800 million across logistics decarbonization.

Amazon Climate Pledge Fund: Invested in freight technology companies including Infinium (e-fuels), Resilinc (supply chain visibility), and Rivian (electric delivery vehicles).

Freight Decarbonization Scaling KPIs

Metric	Seed / Pilot Stage	Growth Stage	Enterprise Scale
Fleet Size (vehicles)	5-25	50-300	300-5,000+
Revenue ($M)	0.5-5	10-80	100-500+
Emissions Reduction (tCO2/yr)	500-3,000	5,000-50,000	50,000-500,000+
Enterprise Customers	1-5	10-40	50-200+
Empty Mile Reduction (%)	10-20	25-40	40-55
Cost Premium vs. Diesel (%)	15-30	5-15	0-8 (parity target)
Charging/Fueling Depots	1-3	5-20	25-100+
Data Integration (TMS connections)	1-3	5-15	20-50+

Action Checklist

• Establish a freight emissions baseline using the GLEC Framework methodology before evaluating decarbonization vendors
• Prioritize fleet segments where electric vehicles have reached TCO parity: urban delivery, port drayage, and regional haul under 200 miles
• Negotiate freight-as-a-service contracts that bundle vehicles, charging infrastructure, and verified emissions certificates to reduce capital risk
• Integrate carrier sustainability scores into transportation management systems and procurement evaluation criteria
• Engage with utility providers 18 to 24 months before planned charging depot deployments to secure grid interconnection timelines
• Evaluate route optimization platforms that reduce empty miles as a near-term emissions reduction lever requiring no fleet capital expenditure
• Join industry green corridor initiatives to benefit from concentrated infrastructure investment on high-volume trade lanes
• Build internal data infrastructure to reconcile emissions data from multiple carriers and methodologies into a single reporting framework

FAQ

What is the fastest way for a shipper to reduce freight emissions without buying new vehicles? Route optimization and load consolidation software can reduce freight emissions by 15 to 25% without any fleet capital investment. Platforms that minimize empty miles and maximize trailer utilization deliver measurable Scope 3 reductions within 90 days of deployment. Modal shift from air freight to ocean or rail for non-time-sensitive shipments provides even larger reductions: shifting one container from air to ocean reduces emissions by approximately 95%.

When will electric trucks reach cost parity with diesel for long-haul routes? BloombergNEF projects TCO parity for battery-electric long-haul trucks (500+ mile range) by 2028 to 2030, contingent on battery pack prices falling below $80 per kWh and megawatt charging infrastructure reaching sufficient density on major freight corridors. For routes under 300 miles with depot-based charging, TCO parity was reached in most US markets by late 2024.

How should companies handle the gap between different freight emissions calculation methodologies? Adopt the GLEC Framework as the primary methodology and require carriers to provide data at the shipment level rather than using company-average emission factors. Where carrier-specific data is unavailable, use well-to-wheel emission factors from recognized databases such as DEFRA or ecoinvent, and flag the data quality tier in your reporting. The ISO 14083 standard, published in 2023, provides the normative foundation that the GLEC Framework implements.

What role does hydrogen play in freight decarbonization given current cost challenges? Hydrogen fuel cell trucks are most viable for specific use cases: return-to-base operations exceeding 400 miles where depot charging time is constrained, and dedicated corridors where hydrogen stations are being deployed through public subsidy programs. The US Department of Energy's hydrogen hub program is investing $7 billion across seven regional hubs, several of which include heavy-duty trucking corridors. Companies should monitor hydrogen price trajectories and infrastructure buildout in their operating regions rather than committing to fleet-wide hydrogen strategies prematurely.

How do freight-as-a-service models compare to purchasing electric trucks directly? Freight-as-a-service models typically carry a 3 to 8% cost premium over direct vehicle purchase on a per-mile basis, but they eliminate capital expenditure risk, charging infrastructure management responsibility, and technology obsolescence exposure. For companies deploying fewer than 50 zero-emission vehicles, the operational simplicity and risk transfer of service models generally outweigh the cost premium. Companies deploying at scale (100+ vehicles) may benefit from direct procurement once they have established internal expertise in electric fleet management and charging operations.

Sources

• McKinsey & Company. (2025). Decarbonizing Freight: The Road to Green Logistics. New York: McKinsey & Company.
• International Transport Forum. (2025). ITF Transport Outlook 2025: Freight Emissions and Decarbonization Pathways. Paris: OECD Publishing.
• BloombergNEF. (2025). Electric Vehicle Outlook 2025: Commercial Vehicles and Heavy-Duty Trucking. London: BloombergNEF.
• National Renewable Energy Laboratory. (2025). Heavy-Duty Vehicle Charging Infrastructure Assessment. Golden, CO: NREL.
• Smart Freight Centre. (2025). Global Logistics Emissions Council Framework: Adoption and Implementation Report. Amsterdam: SFC.
• Einride. (2025). Annual Impact Report 2025: Electric Freight Operations at Scale. Stockholm: Einride AB.
• Flexport. (2024). Convoy Technology Integration: Emissions Reduction and Network Efficiency Results. San Francisco: Flexport Inc.
• Locomation. (2025). Autonomous Relay Convoy: Commercial Deployment Results and Fuel Savings Data. Pittsburgh, PA: Locomation Inc.
• Hyundai Motor Company. (2025). XCIENT Fuel Cell Truck Program: Swiss Deployment Performance Review. Seoul: Hyundai Motor Company.