Following Freight Emissions From Farm To Customer

Moving fresh produce from farms to customers depends on a complex network of ocean vessels, trucks, rail services, warehouses, ports, and distribution centers. Each stage uses energy and creates greenhouse gas emissions, many of which occur outside a company’s direct operational boundary. Measuring these emissions helps reveal where logistics decisions can support a lower-carbon food system.

Scope 3 transport emissions are especially important for a global produce business. Produce often travels under temperature-controlled conditions, and delivery timing can affect product quality, food waste, fuel consumption, and customer service. Reliable reporting therefore requires a practical connection between shipment records, transport activity, emission factors, and business decisions.

Our approach to tracking and reporting Scope 3 emissions from transport is designed to improve visibility across the value chain. The process combines primary information from logistics partners with recognized calculation methods, documented assumptions, and regular reviews of data quality.

Why Transport Belongs In Scope 3

The Greenhouse Gas Protocol divides value-chain emissions into categories that cover activities outside a company’s owned or controlled operations. Transport purchased from carriers generally falls within upstream or downstream transportation and distribution categories, depending on where the movement occurs in relation to the company’s operations. Third-party storage and distribution can also contribute to the reported footprint.

This boundary matters because a shipment may generate emissions even when the vehicle, vessel, or warehouse is owned by another organization. A complete inventory follows the activity that creates the emissions rather than limiting measurement to assets on a company’s own balance sheet.

For fresh produce, the calculation may include transport from growing regions to ports, ocean freight between countries, inland delivery to distribution facilities, and final movements to customers. Refrigeration, container type, distance, load weight, and transport mode can all affect the result.

Building A Shipment-Level Data Trail

The strongest transport inventories begin with operational records. Freight invoices, bills of lading, carrier reports, route information, shipment weights, container counts, and fuel data can provide the activity measures needed for calculation. When these records are connected to procurement and distribution systems, reporting can become more consistent across countries and business units.

Data is reviewed before it is used. Important checks include identifying duplicate shipments, confirming units of measure, reconciling reported freight costs with shipment volumes, and testing whether calculated distances are reasonable. Missing information is documented rather than hidden, allowing estimates to be improved in later reporting cycles.

Supplier engagement is part of this process. Logistics providers may have more detailed fuel-use or route data than a customer can obtain internally. Requests for consistent reporting formats, transport-mode information, and methodology disclosures make it easier to compare results across carriers. Traceability practices used in responsible sourcing can support this work as well; Rainforest Alliance certification illustrates how documented standards and supply-chain relationships can strengthen visibility beyond a single facility.

Choosing Methods That Match The Data

Different transport activities require different calculation methods. Where fuel consumption is available, emissions can be calculated from fuel quantities and applicable emission factors. Where fuel data is unavailable, distance, shipment mass, and transport mode can be combined with an appropriate mass-distance factor.

The data hierarchy below helps define the preferred approach while keeping the inventory complete. Primary data is generally more representative of actual operations, while secondary factors provide a consistent fallback when direct information is not available.

Emission factors should be current, geographically appropriate, and aligned with the selected accounting standard. Factors may differ according to fuel composition, electricity generation, vehicle efficiency, and whether they include related effects such as well-to-wheel emissions. The chosen factors and exclusions are recorded so that year-to-year changes can be explained.

Handling Refrigerated And Multimodal Freight

Temperature-controlled logistics can add energy demand at several points. Refrigerated containers may use electricity or fuel while connected to port infrastructure, ships, trucks, or warehouse systems. The inventory should identify these energy uses where data is available and avoid counting the same activity twice across carrier, warehouse, and internal records.

Multimodal journeys require a clear sequence of legs. A shipment may move by truck from a farm to a port, by vessel to another country, and by truck or rail to a distribution center. Each leg is calculated separately and then combined. This method supports more useful analysis than assigning one broad factor to the entire journey.

Operational context also matters. A shorter route is not automatically lower-emission if it requires air freight, partial loads, or repeated transfers. Better planning can involve consolidating shipments, increasing load utilization, selecting lower-carbon modes where product requirements allow, and reducing avoidable empty mileage.

Reviewing Quality And Reporting Progress

A credible Scope 3 inventory explains its boundaries, sources, calculation methods, emission factors, estimation techniques, and limitations. This information allows internal teams, customers, assurance providers, and other stakeholders to understand what the reported figure represents.

Quality reviews can include trend analysis, comparisons with freight spend and product volumes, checks against carrier statements, and sampling of high-volume routes. Significant changes should be investigated. A rise in emissions may reflect increased sales, a change in reporting coverage, longer routes, greater use of air freight, or a revised emission factor rather than a single operational cause.

Progress is best measured with both absolute and intensity indicators. Total transport emissions show the overall footprint, while measures such as kilograms of carbon dioxide equivalent per tonne-kilometre, case, or unit of product can help assess logistics efficiency. Intensity metrics should be interpreted alongside volume, service requirements, and changes in the product mix.

Priorities For More Reliable Freight Accounting

Improving the inventory is a continuing process. The most useful priorities are practical actions that increase data coverage and create a direct connection between measurement and logistics management.

• Expand primary data collection from ocean, road, rail, air, and cold-chain providers.
• Standardize shipment fields, including mass, distance, mode, route, container type, and refrigeration status.
• Set clear rules for estimates, data gaps, organizational boundaries, and shared transport legs.
• Use route-level results to evaluate consolidation, modal shifts, load utilization, and carrier performance.
• Review emission factors and calculation methods regularly as standards and operational data develop.

These measures also support responsible purchasing. Transport emissions can be considered alongside delivery reliability, food safety, product quality, labor expectations, and environmental performance when evaluating logistics partners. A balanced approach recognizes that lower-carbon transport must still protect the freshness and availability of food.

Turning Measurements Into Action

Reporting creates value when it informs decisions. Route-level data can help identify corridors with high emissions, facilities where energy information is incomplete, and carriers that can provide more detailed performance data. It can also guide collaboration on operational changes that reduce fuel use without compromising food quality.

Fresh produce logistics will continue to evolve as technology, infrastructure, customer expectations, and climate-related risks change. Consistent accounting provides a foundation for setting credible priorities and tracking whether those priorities are delivering measurable results.

Explore the company’s sustainability work and follow future updates on supply-chain transparency, environmental performance, and responsible transport. Better freight data turns each shipment record into an opportunity to reduce emissions across the journey from farm to customer.