Target Says Scope 3 Is 98.5% of Its Footprint: Turn Supplier Energy Data Into Freight Decisions

Target's emissions profile shows why retail decarbonization is fundamentally a supply chain data problem. Scope 3 emissions—those generated outside a company's direct operations—represent 98.5% of Target's total footprint, according to Supply Chain Dive. About 45% of the retailer's total footprint comes from manufacturing the products and materials it sells.

Those figures shift the center of action away from stores and corporate facilities. Renewable electricity at a retailer's own sites still matters, but it cannot materially transform a footprint dominated by factories, raw materials, suppliers, and transportation. The hard work is proving where energy changed, connecting that change to the right products, and preventing the same reduction from being claimed twice.

For logistics teams, supplier energy data should not remain in an annual sustainability workbook. It should inform sourcing, consolidation, routing, mode selection, and carrier decisions at shipment level.

Separate verified transitions from estimates

A supplier questionnaire saying a facility “uses renewable energy” is not enough. Procurement teams need evidence with a defined facility, reporting period, energy source, unit of measure, and ownership claim. At minimum, request monthly electricity consumption, fuel consumption, on-site generation, utility invoices, renewable-energy contracts or certificates, meter coverage, and the methodology used to allocate emissions across products.

Each figure should carry an evidence status. A sensible hierarchy is:

• facility-specific data supported by invoices, meters, and contractual documents;
• facility data reviewed or assured by an independent party;
• supplier-calculated data with a documented methodology;
• industry-average or spend-based estimates; and
• an unverified claim with no supporting record.

That hierarchy matters because estimates can create false precision. Supply Chain Dive reported in 2023 that only 38% of businesses were tracking Scope 3 emissions, citing an IBM survey. A company may therefore receive detailed primary data from one supplier and broad economic estimates from another. Presenting both as equally reliable hides decision risk.

The data also needs effective dates. A factory that signs a clean-energy agreement in September should not have its new factor applied to shipments made in January. Preserve the old factor, the transition date, the contract term, and any market-based instrument identifiers so an auditor can reproduce the calculation later.

Build a shipment-level carbon chain

Energy evidence becomes operational only when it joins the commercial and transportation record. Create stable keys that connect the supplier's legal entity and facility to purchase orders, SKUs, production lots, origin locations, shipment IDs, carriers, modes, routes, weights, and delivery points.

The calculation should distinguish three components:

1. Product emissions: materials and manufacturing energy allocated to a SKU or production lot.
2. Upstream logistics: movements from raw-material and component sources into manufacturing or consolidation sites.
3. Downstream transportation: the actual mode, distance, equipment, utilization, and final delivery legs used for the finished product.

Do not overwrite source records when better data arrives. Version the emission factor and retain whether a result came from measured activity, supplier allocation, distance-based modeling, or spend. An auditor should be able to move from a reported reduction back through the shipment, order, product, facility, factor, and supporting document.

Shipment detail also prevents averages from masking operational choices. Two identical products may leave the same low-carbon factory, yet one travels in a well-utilized ocean container and the other moves by air after a planning failure. A facility-level sustainability gain does not erase a freight premium created downstream.

Turn carbon records into freight choices

Procurement and transportation teams should use the connected dataset to rank interventions by tonnes reduced, cost, confidence, and implementation time. Start with high-volume product-facility lanes where both manufacturing and freight activity are visible. These usually offer more defensible savings than broad supplier pledges.

Useful operating decisions include consolidating orders to raise container utilization, shifting eligible volume from air to ocean or truck to intermodal, moving cutoffs earlier to protect lower-carbon modes, and routing purchases toward verified facilities when quality, capacity, lead time, and landed cost remain acceptable.

The TMS can turn those policies into execution controls. When a planner selects an expedited mode, show the emissions and cost delta against the standard plan. When consolidation would miss a customer promise, record the service reason. When a carrier supplies shipment-level emissions, retain the carrier methodology alongside the result instead of importing a number without context.

Carrier tools can improve granularity. For example, Supply Chain Dive reported that a FedEx emissions platform uses package scan data to estimate carbon dioxide equivalent emissions by tracking number, account, service type, and transport mode. That kind of operational detail is useful, but companies still need consistent boundaries and factor governance when comparing providers.

Prevent double counting

The same activity can appear in several programs. A supplier may claim a renewable-electricity reduction, a buyer may count lower product emissions, and a carrier may report a route improvement. These claims can coexist only when their boundaries are explicit.

Assign every initiative a unique ID and define its baseline, ownership, time window, facilities, SKUs, lanes, modes, and emissions categories. Then apply exclusions. A manufacturing-energy reduction should change the product factor, not the transportation factor. A mode shift should affect the relevant freight leg, not the supplier's factory footprint. Renewable-energy certificates should be retired and attributed according to the selected accounting method, not reused across buyers or reporting periods.

Maintain both gross activity and claimed reductions. This lets teams answer two different questions: what emissions were associated with the shipment, and which approved initiative changed that result? Monthly controls should flag overlapping boundaries, expired evidence, unexplained factor changes, missing weights, and reductions calculated from an outdated baseline.

Use a decision scorecard

A practical portfolio scorecard should include annual emissions opportunity, evidence quality, data coverage, cost per tonne reduced, service impact, lead time, supplier capacity, and risk of double counting. Weight verified, repeatable reductions more heavily than large but weakly supported estimates.

Target's 98.5% figure makes the priority unmistakable: the biggest sustainability decisions sit across supplier and logistics networks. The winning approach is not another isolated carbon dashboard. It is a governed chain of evidence that allows sourcing and transportation teams to make better decisions—and prove exactly what changed.

Ready to connect supplier, order, route, and shipment data in one auditable workflow? Request a CXTMS demo and turn Scope 3 targets into operational freight decisions.