Volvo, JLR and Dassault take strides towards net zero

Major car manufacturers prove digital technology drives carbon reduction

Volvo Cars, Jaguar Land Rover, and Dassault Systèmes are turning sustainability targets into factory floor achievements. The manufacturers are using battery passports, simulation software, AI inspection systems, and real-time energy monitoring to cut emissions across their operations.

The collaboration demonstrates a significant shift. Technologies originally built to improve manufacturing efficiency now serve a dual purpose: they also drive decarbonization. According to industry analysis, the gap between boardroom carbon ambitions and practical shop-floor delivery is narrowing rapidly.

This matters because it changes how automotive manufacturers approach net zero. Sustainability is no longer a separate compliance exercise. Instead, it sits alongside production metrics, quality control, and operational efficiency as a core manufacturing concern.

Volvo achieves climate-neutral production at Swedish plants

Volvo’s Torslanda facility in Sweden has become the company’s second climate-neutral manufacturing site. The plant, Volvo’s oldest production location, now runs on climate-neutral electricity and heating. Approximately 50% of heating comes from biogas, with the remainder supplied by industrial waste heat.

The Torslanda achievement follows the Skövde engine plant, which reached climate neutrality in 2018. Volvo has powered Torslanda with climate-neutral electricity since 2008. The recent heating transition completes the site’s journey to carbon-neutral operations.

The manufacturer has set clear interim targets. By 2030, Volvo aims to reduce CO₂ emissions per car by 75% compared to 2018 levels. Operational energy usage per vehicle should fall by 40% over the same period. Meanwhile, recycled content must reach 30% across the fleet average and 35% in new models.

Recent data shows significant progress. In 2025, Volvo reported a 31% reduction in CO₂ emissions per car versus the 2018 baseline. This meets the interim target range of 30% to 35%. Operational emissions dropped by 37% over the same period, driven largely by electrification and renewable energy adoption.

The company’s long-term goal is more ambitious. Volvo aims for zero greenhouse gas emissions by 2040 across its entire value chain. This target goes beyond climate neutrality. Carbon removals will only offset unavoidable emissions, with the vast majority eliminated at source.

JLR places sustainability in strategic decision-making

Jaguar Land Rover has committed to carbon net zero by 2039. The target aligns with Science Based Targets initiative standards and covers all emission scopes, including supply chain and product use.

JLR emphasizes that sustainability must influence core business strategy. According to the manufacturer, fewer than two-thirds of chief executives are very engaged with sustainability issues. This leadership gap represents a critical barrier to progress across the automotive sector.

The company’s approach recognizes that decarbonization cannot happen in isolation. Strategic partnerships with technology providers and suppliers are essential. JLR explicitly states that manufacturers cannot achieve net zero alone, particularly given that the majority of lifecycle emissions occur outside direct operations.

Dassault Systèmes provides the digital infrastructure supporting these efforts. Their simulation platforms and energy data systems allow manufacturers to visualize carbon footprints alongside traditional production metrics. The technology enables real-time monitoring and AI-driven quality inspections, turning abstract sustainability goals into measurable factory outcomes.

Digital tools merge manufacturing performance with carbon tracking

The technologies driving this transformation were not originally designed for environmental purposes. Simulation software, predictive AI, and real-time data monitoring emerged to improve production efficiency, reduce defects, and minimize downtime. However, these same tools now provide the infrastructure for carbon accounting and reduction.

Battery passports exemplify this convergence. These digital records track materials, manufacturing processes, and carbon footprints throughout a battery’s lifecycle. The information supports both quality assurance and environmental compliance, creating transparency from raw material extraction through to end-of-life recycling.

Energy data monitoring provides another clear example. Manufacturers can now track electricity consumption, heating demand, and process emissions with the same granularity they apply to production volumes. This allows immediate identification of inefficiencies and enables rapid intervention when energy use spikes unexpectedly.

AI inspection systems contribute by reducing waste and rework. Defective components require additional energy to produce and often end up as scrap. By catching quality issues earlier and more accurately, AI systems cut both production costs and embedded carbon in rejected parts.

UK manufacturers face similar carbon reduction pressures

The Volvo and JLR approaches carry direct relevance for UK manufacturing. Government policy increasingly links carbon performance to commercial opportunity. Public sector procurement, for instance, requires suppliers to demonstrate carbon reduction plans and report emissions through frameworks like PPN 06/21.

Supply chain requirements flow downward rapidly. When major manufacturers commit to Scope 3 emission reductions, they must engage their entire supplier network. Component producers, logistics providers, and material suppliers all face requests for carbon data and reduction commitments. Businesses unable to provide this information risk exclusion from tenders and preferred supplier lists.

Financing costs also reflect carbon performance. Sustainability-linked loans and green bonds offer lower interest rates to businesses demonstrating credible environmental progress. Volvo’s target of 100% green debt by 2025 illustrates this trend. Conversely, businesses without clear decarbonization strategies may face higher capital costs as lenders price in transition risk.

Operational costs provide further incentive. Energy prices remain volatile, and businesses reducing consumption gain competitive advantage through lower overheads. The transition to renewable electricity and heat, as demonstrated at Torslanda, shields operations from fossil fuel price fluctuations while cutting emissions.

Regulatory compliance adds urgency. The UK government’s commitment to net zero by 2050 will require progressively stricter emissions standards across sectors. Early movers gain time to spread investment over longer periods and avoid rushed, expensive retrofits as deadlines approach.

Technology costs have dropped significantly. Solar panels, heat pumps, LED lighting, and energy management systems now offer attractive payback periods. Furthermore, simulation and monitoring software has become more accessible, allowing smaller manufacturers to adopt tools previously available only to large corporations.

Customer expectations matter too. Business buyers increasingly request environmental data as part of procurement processes. Consumer-facing brands face direct scrutiny over their supply chain carbon footprints. Manufacturers supplying these markets must demonstrate credible environmental credentials to maintain relationships.

Five critical facts about automotive decarbonization

• Volvo achieved a 37% reduction in operational emissions by 2025 compared to 2018, primarily through electrification and renewable energy adoption.
• Jaguar Land Rover targets carbon net zero by 2039, requiring engagement across the entire supply chain and product lifecycle.
• Torslanda plant derives 50% of heating from biogas and the remainder from industrial waste heat, eliminating fossil fuel use.
• Only 63% of chief executives report being very engaged with sustainability, indicating a significant leadership gap in the automotive sector.
• Volvo aims for 75% CO₂ reduction per car and 40% operational energy reduction by 2030, with 99% of waste reused or recycled.

Start with measurement before setting targets

The Volvo and JLR examples demonstrate that credible carbon reduction requires accurate baseline data. Many UK manufacturers begin sustainability efforts with targets but lack the measurement systems to track progress. This creates reporting problems and makes it difficult to identify which interventions actually work.

Energy monitoring should come first. Install metering that breaks down consumption by process, shift, or production line. This reveals patterns and anomalies that aggregated utility bills cannot show. Consequently, you can target the most energy-intensive operations and measure improvement accurately.

Scope 3 emissions present the biggest challenge for most manufacturers. These indirect emissions from supply chains and product use typically represent 70% to 90% of total carbon footprint. However, gathering supplier data takes time and requires clear communication of requirements. Sustainable procurement frameworks help structure these conversations and establish consistent reporting.

Carbon reporting frameworks vary significantly. Some businesses must comply with Streamlined Energy and Carbon Reporting (SECR) regulations. Others face requirements under PPN 06/21 for public sector contracts. Understanding which frameworks apply to your business avoids duplication and ensures you collect the right data from the start.

Technology investment should align with specific goals. Simulation software suits businesses planning major process changes or new facilities. Real-time monitoring works for operations seeking to optimize existing equipment. AI inspection systems benefit high-volume production with quality issues that generate significant waste.

Board-level engagement proves essential. The JLR observation about chief executive involvement reflects a wider pattern. Sustainability initiatives struggle without senior leadership support because they require capital investment, process changes, and sometimes short-term cost increases. Therefore, building the business case clearly matters as much as the technical implementation.

Training staff on new systems prevents expensive mistakes. Digital tools only deliver results when operators understand how to use them and why they matter. Workforce training on carbon literacy builds internal capability and helps teams identify improvement opportunities beyond formal measurement systems.

External verification adds credibility. Self-reported carbon data increasingly requires third-party assurance, particularly for large contracts or sustainability-linked financing. Planning for verification from the outset ensures your measurement systems meet auditor requirements and avoids costly retrospective changes.

Government and industry resources for manufacturers

The UK government provides detailed guidance on carbon reporting through the greenhouse gas conversion factors for company reporting. These figures help calculate emissions from energy use, transport, and other business activities using consistent methodology.

The Procurement Policy Note on carbon reduction plans sets out requirements for suppliers bidding on central government contracts above £5 million annually. This includes the commitment to net zero by 2050 and publication of a carbon reduction plan covering Scope 1, 2, and 3 emissions.

The Science Based Targets initiative offers frameworks for setting emissions reduction goals aligned with climate science. Their guidance helps businesses establish credible targets and demonstrates commitment to stakeholders. Further information is available through the SBTi website.

Industry bodies provide sector-specific support. The Manufacturing Technology Centre publishes research on energy efficiency and low-carbon manufacturing processes. Meanwhile, the Institution of Mechanical Engineers offers technical guidance on industrial decarbonization strategies.

For manufacturers seeking comprehensive support with carbon measurement, reporting, and reduction planning, structured compliance services help navigate the requirements efficiently and avoid common pitfalls in data collection and target setting.