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ETS2 and its Impact on European Supply Chains and Industry

Published

12 mois ago

22 octobre 2025

Ets2 And Its Impact On European Supply Chains And Industry

In 2027, the European Union will expand its Emissions Trading System through a new phase known as ETS2. For the first time, emissions from road transport and building heat will be covered by a carbon price. This change turns carbon from an environmental issue into a direct operating cost that affects every part of the European economy.

Under ETS2, fuel distributors will buy carbon allowances and pass those costs through the supply chain. Analysts expect prices near €45 to €50 per ton of CO₂, which would add 10 to 15 eurocents per liter to fuel costs and raise heating expenses by about 20 to 25 percent. The EU’s Social Climate Fund, worth around €86 billion, will help offset the burden for lower-income households, but energy and transportation costs will still rise for most businesses and consumers.

The policy’s effect will extend across freight, warehousing, and manufacturing. ETS2 integrates carbon pricing into the cost base of logistics and supply chains, linking emissions directly to financial performance.

Carbon impact on consumers

Consumers will see immediate cost increases as fuel and heating expenses rise. Higher household energy costs will translate into higher prices for goods and services, since transportation and building operations are now subject to allowance pricing.

Energy markets are expected to experience greater volatility as carbon prices fluctuate, introducing a new variable for logistics and industrial planning. While the Social Climate Fund will provide temporary relief, the overall trajectory is toward higher and less predictable operating costs.

Effects on transport and logistics

ETS2 will directly influence the cost and structure of European transport networks. Road freight operators, which depend heavily on diesel fuel, will face the largest impact.

Industry estimates suggest total freight costs could rise by 3 to 8 percent, depending on fleet efficiency, route structure, and regional energy mixes. Carriers will likely pass these increases to shippers through new fuel surcharges or contract adjustments.

Companies are already planning mitigation measures. These include electrifying or hybridizing fleets, shifting more freight to rail and inland waterways, and using data analytics and telematics to optimize routing and reduce idle time. Because carbon allowances are traded in open markets, transport pricing will include a carbon volatility premium.

CFOs and logistics planners will need to integrate carbon-cost modeling into financial systems alongside traditional fuel forecasts. Compliance obligations will expand as companies are required to report verified emissions data and provide Scope 3 information to customers and regulators.

Effects on industrial operations

ETS2 will also raise production costs for energy-intensive sectors such as steel, cement, chemicals, and automotive manufacturing. These industries already face higher energy prices compared with global competitors, and the addition of a carbon price on fuel and heating compounds that disadvantage.

Without improvements in efficiency or cleaner energy inputs, some plants may reduce output or relocate production to lower-cost regions. Others may use the regulation as justification to invest in hydrogen systems, electrified heat, and renewable power, improving long-term competitiveness.

Industrial activity is expected to consolidate around areas with abundant and affordable renewable energy. Central Europe may continue to specialize in automotive and advanced components, Iberia could benefit from low-cost solar energy, and the Nordic countries are well-positioned to expand production of low-carbon metals and materials.

Industry relocation and global competition

ETS2 may encourage relocation toward India, China, and Southeast Asia, where energy remains less expensive and environmental regulation is lighter. Low-margin producers and basic material industries are most likely to shift operations in search of cost advantages.

However, several factors will limit this movement. The Carbon Border Adjustment Mechanism (CBAM) will impose tariffs on carbon-intensive imports, reducing the economic benefit of offshoring. In addition, supply chain strategies developed after the pandemic now emphasize resilience and proximity, making distant production less attractive. Automation and renewable energy investments are also reducing the importance of cheap labor and fossil fuel costs in total production expense.

The likely result is a mixed pattern: basic manufacturing migrating abroad, while advanced, low-emission manufacturing consolidates inside Europe. The region’s competitiveness will depend increasingly on data integration, energy efficiency, and digital control of emissions.

Role of digital product passports

The upcoming Digital Product Passport (DPP) initiative will play a key role alongside ETS2. DPPs will store verified information about a product’s materials, origin, energy use, repairability, and carbon footprint.

This data will enable precise tracking of embedded emissions across production and transport networks. Integrated into ERP, procurement, and logistics systems, DPPs will improve accuracy in Scope 3 reporting, support compliance with CBAM, and enhance supplier evaluation.

Over time, DPPs will also help companies identify circular-economy opportunities, such as parts reuse and recycling. By linking emissions and material data, they make it possible to measure environmental performance at the level of individual products and shipments.

Benefits

ETS2 introduces measurable carbon accountability across supply chains. It will accelerate investment in low-emission technologies, improve the quality and traceability of sustainability data, and encourage the development of regional logistics networks supported by renewable energy.

For logistics and supply chain executives, ETS2 provides a consistent framework for comparing emissions performance and cost across carriers, facilities, and sourcing regions.

Costs and risks

ETS2 will raise operating costs for transport, warehousing, and manufacturing. Companies that rely heavily on fossil fuels will experience margin compression until alternative energy sources become more available. Smaller operators may face financial and administrative strain from the added reporting and compliance requirements.

Volatility in carbon allowance markets will make budgeting more complex, while infrastructure for electric fleets and renewable power generation may take several years to scale. The adjustment period is likely to be uneven across sectors and regions.

Strategic outlook

ETS2 embeds carbon pricing into the financial structure of supply chains. Carbon will now function as a standard input cost, alongside energy, labor, and raw materials.

To adapt, organizations will need to integrate emissions data into procurement systems, transport management tools, and corporate finance processes. Advanced analytics, AI-based control towers, and DPP-linked data streams will support real-time modeling of carbon exposure and efficiency performance.

The key operational metric will shift toward output per kilogram of CO₂ emitted, reflecting both cost control and environmental compliance.

Conclusion

ETS2 will increase short-term costs across Europe’s logistics and manufacturing sectors, but it will also standardize how emissions are measured, priced, and managed.

For supply chain leaders, the central challenge is operational—integrating carbon data into day-to-day planning, optimizing transport efficiency, and investing in low-emission infrastructure.

The result will likely be a more transparent and efficient logistics network, built around renewable energy and digital monitoring. ETS2 marks a transition to an economy where carbon cost management becomes a core element of supply chain strategy and competitiveness.

The post ETS2 and its Impact on European Supply Chains and Industry appeared first on Logistics Viewpoints.

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Infor Builds More Intelligence Into Logistics Execution

Published

15 heures ago

2 octobre 2026

Warehouse and transportation systems have traditionally been judged on execution reliability: receive the inventory, build the wave, pick the order, plan the shipment, tender the load, and record the transaction correctly. Those requirements have not disappeared, but the competitive frontier is moving toward systems that can interpret operating conditions and help improve the work while it is happening.

Infor’s logistics portfolio reflects that shift. Infor WMS combines core warehouse execution with labor management, yard capabilities, 3PL billing, visualization, and connectivity to automation. The broader Infor cloud environment adds analytics, workflow, integration services, machine learning, robotic process automation, and digital-assistant capabilities that can increasingly influence operational decisions rather than simply report them.

The result is a useful example of how mature execution software is being modernized. Warehouse operations are becoming more automated, transportation networks more dynamic, and labor more constrained. Systems therefore need to coordinate people, inventory, equipment, automation, and external logistics partners while also providing enough intelligence to prioritize exceptions and adapt plans during the day.

The critical issue is execution discipline. AI features are valuable only when they improve an already dependable operating process. Buyers should validate core functional depth, automation interfaces, cloud architecture, and the quality of the recommendations generated from operational data before treating AI as a differentiator by itself.

Infor can be viewed in both the Logistics Viewpoints Transportation Management Systems MarketMap and Warehouse Management Systems MarketMap. Those two MarketMaps provide a useful way to assess how the company is evolving across the connected transportation and warehouse execution environment.

The post Infor Builds More Intelligence Into Logistics Execution appeared first on Logistics Viewpoints.

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Global Trade Management Is Becoming a Real-Time Supply Chain Control System

Published

18 heures ago

2 octobre 2026

Executive thesis. Global trade management is moving from compliance transaction processing toward real-time supply chain control. Trade rules now alter sourcing, routing, inventory, landed cost, and customer commitments before goods move.

Trade decisions now change network economics

Global trade management was once treated primarily as a compliance and documentation layer around cross-border transactions. That view is incomplete. Classification, origin, duties, sanctions, export controls, customs rules, and regulatory content can change the economics or feasibility of a sourcing, routing, inventory, or customer decision before the shipment ever moves.

Compliance data is operational data

A product classification affects duty. Origin affects eligibility and tariff treatment. Screening can stop a transaction. Customs documentation can determine whether freight clears or waits. These are not administrative attributes detached from the physical network. They are operating constraints that need to be available to procurement, order management, planning, transportation, and finance when decisions are made.

Auditability is part of automation

The more trade processes are automated, the more consequential it becomes to preserve the evidence behind the result. A classification, screening decision, origin determination, or duty calculation should be traceable to the data, rule set, version, and workflow that produced it. Automation without defensibility creates risk because the enterprise may be unable to explain why a transaction was approved, blocked, or costed a certain way.

Integration determines whether GTM can influence execution

GTM value is constrained if it operates as an isolated compliance application. The platform needs reliable connections to ERP, PLM, procurement, orders, transportation, brokers, and content providers. Those integrations allow trade rules to influence decisions before commitments are made and allow executed transactions to be reconciled against what was planned.

The category is moving toward control

This is why GTM is becoming more than a recordkeeping system. The strategic opportunity is to turn changing trade conditions into controlled operational responses: identify exposure, understand the economic consequence, evaluate alternatives, update the transaction, and preserve the evidence. That is the same signal-to-decision-to-execution pattern appearing elsewhere in modern supply chain architecture.

The Logistics Viewpoints Global Trade Management (GTM) Software: Buyer’s Guide covers classification, origin, screening, export controls, customs, duty, landed cost, brokers, regulatory content, auditability, and enterprise integration as parts of one operating system.

Executive implication

GTM should be designed as an operational control system with auditable rules, enterprise context, and direct integration into planning and execution decisions.

Go deeper: provides the durable buyer, architecture, and implementation reference for this topic. Global Trade & Compliance connects this analysis to the broader Logistics Viewpoints research architecture.

Related Logistics Viewpoints research

Download the Global Trade Management (GTM) Solutions Executive Summary
Risk & Resilience in the Supply Chain

Go Deeper

Read the full Global Trade Management (GTM) Software: Buyer’s Guide.

Explore the broader Global Trade & Compliance domain for related Logistics Viewpoints research and analysis.

The post Global Trade Management Is Becoming a Real-Time Supply Chain Control System appeared first on Logistics Viewpoints.

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Supply Chain Technology Markets Are Converging Faster Than Vendor Categories

Published

2 jours ago

1 octobre 2026

The New Logistics Advantage — Part 6 of 9

Supply chain technology markets are usually described as categories. WMS, TMS, planning, visibility, control towers, order management, warehouse automation, decision intelligence, and other segments each have established buyers, competitors, and functional boundaries.

Those categories remain commercially useful. But strategically, the boundaries are moving faster than the labels. Providers are expanding into adjacent workflows, intelligence, orchestration, and automation, while buyers increasingly assemble architectures that cut across the traditional category map.

Convergence Is Happening From Multiple Directions

Execution vendors are adding intelligence. Planning vendors are moving closer to operational workflows. Visibility providers are extending toward exception resolution. Automation vendors are building software layers. Enterprise platforms are embedding AI. Specialized AI providers are attacking decision processes that historically lived inside application categories.

The four current MarketMaps make this movement visible. The 2026 Warehouse Management Systems Market Map examines a mature execution category expanding around automation and intelligence. The 2026 Transportation Management Systems Market Map shows a durable market becoming more connected to networks, visibility, and orchestration. The 2026 Autonomous Exception Management Market Map captures an emerging category between visibility and coordinated response. The 2026 Supply Chain Decision Intelligence Market Map addresses the broader shift toward systems organized around decisions.

The same pattern appears in buyer expectations. A warehouse platform is increasingly judged on automation connectivity and intelligence. A TMS is judged on network data, visibility, and response. A planning system is judged on whether recommendations can be operationalized. The category still defines the core job; differentiation increasingly comes from the adjacent layers.

The Competitive Battleground Is Shifting to Control Points

Products are expanding along several dimensions: workflow, data, intelligence, orchestration, automation, user experience, and ecosystem connectivity. Those dimensions matter because each can become a control point in the architecture.

A provider that owns the system of record controls authoritative transaction state. A provider with unique network data may control context. A decision-intelligence layer can shape which alternatives are considered. An orchestration platform can determine how work moves among systems. An automation platform can control the final physical action.

Two vendors can therefore compete even when analysts place them in different categories. A WMS provider and a warehouse-automation software platform may both seek to own task orchestration. A visibility provider and an exception-management platform may both seek to own disruption response. A planning provider and a decision-intelligence provider may both seek to own the cross-functional recommendation.

This is why convergence does not necessarily mean that one suite replaces everything. It means more vendors are competing for the same strategic control points from different starting positions.

The Buyer Problem Becomes Architectural

Traditional category evaluation begins with feature completeness. That remains necessary, especially for systems of record. But as markets converge, buyers need a second question: Which layer of the operating architecture is this provider attempting to control?

The market-research executive summaries provide category depth that remains essential: WMS, TMS, Supply Chain Planning, and OMS each explain the structure and capabilities of important markets. The strategic challenge is to interpret those markets as parts of a changing architecture rather than as permanent silos.

A buyer may select the strongest product in a category and still create a weak portfolio if the product traps data, duplicates decision logic, constrains adjacent workflows, or makes future substitution prohibitively difficult. Architectural fit therefore becomes part of product value.

This creates a useful distinction between functional depth and architectural leverage. Functional depth answers whether the product can perform its core job. Architectural leverage answers whether the product improves or constrains the larger system around it.

Convergence Changes Vendor Strategy Too

For providers, adjacency strategy needs discipline. Expanding into every neighboring function can increase surface area while weakening differentiation. The more important question is which adjacent capability reinforces an existing control point.

A TMS with strong transportation state may have a credible path into exception intelligence because it already sees important network events. A WMS with deep execution state may have a credible path into warehouse orchestration. A planning platform with broad enterprise context may have a credible path into decision support. The logic of expansion should follow the asset the provider already controls, not simply the size of the adjacent market.

That also raises the importance of interoperability. In a converging market, customers will resist architectures that require every adjacent capability to come from one supplier. Providers that can participate in a heterogeneous system may create more strategic value than providers that maximize suite breadth at the cost of flexibility.

The Executive Implication

Technology strategy should separate two questions that are often conflated: Which product is strongest inside a category? and Which architecture will remain adaptable as categories converge? The first is a product-selection problem. The second is a portfolio and operating-model problem. Organizations that solve only the first can end up with excellent applications that constrain future change. Organizations that solve both can preserve functional depth while creating room for new forms of intelligence, automation, and orchestration.

For buyers and providers alike, category labels still matter. But the more strategic question is increasingly about control: who owns the record, the context, the decision, the workflow, and the path to execution?