Published: 5 August 2026
Author: Max Finney
What is climate scenario modelling – and why use it?
Climate scenario modelling is about making better decisions in uncertainty. It helps organisations understand how different policy, market and technology pathways could shape their operations and long‑term strategy. Instead of betting on a single forecast, it tests a range of credible futures—so leadership teams can challenge assumptions, pressure‑test investments and strengthen resilience where it matters most.
This matters because expectations have shifted. Regulators increasingly require organisations to assess and disclose climate‑related risk. But this goes beyond compliance. Investors, regulators and wider society want clear evidence that organisations understand their exposure and are actively building more resilient businesses and supply chains in response.
Our scenario analysis draws on work undertaken by external consultants as part of Shoosmiths’ Transition Risk Assessment and uses the European Sustainability Reporting Standards (ESRS) impacts, risks and opportunities (IRO) framework to identify the sustainability themes most relevant to our key client sectors. The high priority themes were then tested against three future climate pathways from the Climate Change Committee (CCC), reflecting different levels of policy intervention, behavioural change and progress towards net zero.
For each sector, the analysis considered how risks and opportunities could evolve under each scenario, examining implications across areas such as regulation, markets, technology, investment, operations and reputation. This helps to ensure the analysis reflects the sustainability issues most likely to shape future business performance, stakeholder expectations and legal demand. We are therefore able to use the results to turn abstract risk into practical insight that mobility, logistics and manufacturing leaders can act on.
1. Business as Usual (BAU)
No major policy changes beyond current commitments. This represents the slowest pace of decarbonisation and the highest level of sustained climate risk.
2. Moderate Ambition
Some policy progress, but behaviour change and infrastructure deployment lag behind net zero pathways.
3. 1.5°C Aligned (Balanced Pathway)
Policy and behaviour change keep pace with net zero goals. This scenario delivers the most resilient and lowest‑carbon future.
What are the material transition risks and opportunities for mobility, manufacturing & logistics?
Our scenario analysis highlights several critical impacts of the transition to net zero across markets, technology, policy and consumer dynamics. These evolve over time and present both challenges and opportunities.
Key risks
- climate driven disruption to transport infrastructure: More frequent extreme weather events increase asset degradation, route disruption and maintenance costs across transport networks and logistics systems
- slow progress in decarbonising heavy transport and manufacturing: Passenger vehicles electrify faster than heavy goods vehicles and industrial processes, creating uncertainty in fuel pathways and transitional cost pressures
- energy price volatility and grid constraints: Electrification increases demand, but insufficient grid capacity and slow deployment of supporting infrastructure creates constraints and uneven regional access
- supply chain disruption and critical mineral pressure: Rapid growth in battery technologies and electrification increases competition for critical materials, raising costs and delivery risk
- affordability and access challenges for users: High upfront costs of electric vehicles and evolving service models risk excluding smaller businesses and vulnerable communities from access to mobility solutions
Opportunities
- investment in electrification and charging infrastructure: Expansion of EV charging networks and electrified fleets creates new market opportunities across logistics and manufacturing
- innovation in mobility models: Growth in shared mobility, subscription models and last mile logistics solutions enables more efficient and lower emission transport systems
- supply chain transformation: Early adoption of circular material flows and responsible sourcing strengthens resilience and reduces long term cost exposure
Key risks
- misaligned infrastructure investment: Delays in charging networks, grid expansion and alternative fuel supply chains limit the benefits of electrification and increase transition costs
- fragmented technology pathways: Uncertainty between electrification, hydrogen and biofuels for heavy transport and industrial processes complicates long term investment decisions
- sustained pressure on logistics systems: Climate disruption, urban congestion and inefficient planning increase complexity and cost in distribution networks
- resource and material constraints: Ongoing reliance on virgin materials and limited recycling infrastructure maintains exposure to global supply chain risk
Opportunities
- scale up of low carbon manufacturing: Electrification of industrial processes and adoption of circular economy approaches improve efficiency and resilience
- development of alternative fuel ecosystems: Growth in hydrogen, synthetic fuels and battery recycling supports diversification of energy pathways
- integrated transport and logistics systems: Linking digital systems, energy infrastructure and physical networks enables more efficient and resilient operations
Key risks
- stranded assets in legacy transport and industrial systems: Continued reliance on high emission technologies leads to long term devaluation and transition cost exposure
- systemic vulnerability across infrastructure and supply chains: Failure to integrate energy, transport and digital systems reduces resilience to climate and market shocks
- persistent resource constraints: Competition for critical minerals, land and water continues to limit growth and increase volatility
Long‑term opportunities
- fully decarbonised transport and manufacturing systems: Stable energy supply and mature technologies reduce operating costs and enhance predictability
- circular and resilient supply chains: Reuse, recycling and alternative materials reduce reliance on primary resource extraction
- leadership in next generation mobility and logistics: Organisations aligned to net zero pathways are best placed to capture long term market value
How risks and opportunities vary across the three climate scenarios
Transport networks remain vulnerable to storms and heatwaves, making some routes increasingly impractical or too costly to maintain over time.
Mobility and logistics operators see higher disruption exposure and more frequent disputes around performance, force majeure and service levels in haulage and distribution contracts.
Resilience improves in places, but uneven planning and a fragmented system keeps reliability patchy across regions and corridors.
Heavy transport fleets and manufacturers with just-in-time logistics face higher contractual complexity as they manage variable network performance, delivery penalties and route contingency planning.
Integrated resilience planning reduces the risk of redundant infrastructure and supports more reliable movement of goods and people.
Logistics and mobility clients gain clearer line of sight for long-term investment, with stronger foundations for planning, consenting and infrastructure delivery timetables.
Limited innovation and slow scale-up of alternatives keeps market uncertainty high for diesel and petrol replacements, with heavy road transport particularly exposed.
HGV decarbonisation programmes become more legally and commercially fraught, as OEMs and operators negotiate technology risk, charging and refuelling access, warranties, total cost of ownership models and evolving compliance requirements.
Electrification progresses but a fragmented mix of EV and combustion vehicles sustains higher costs and weak economies of scale across fleets and supply chains.
OEMs and fleet operators face greater regulatory and liability complexity in parallel pathways, including contract structures for infrastructure roll-out, product claims, safety assurance and compliance management across mixed technologies.
Clear policy and behaviour change establishes a more consistent low carbon pathway, reducing uncertainty and supporting wider deployment of charging networks and alternative fuel supply chains.
Heavy transport decarbonisation accelerates with clearer commercial models, while OEMs de-risk transition by aligning product strategy, supplier obligations and customer contracting to stable regulatory expectations.
Logistics and distribution chains remain largely unchanged, sustaining diesel dependence and leaving supply chains exposed to climate disruption and higher operating costs.
Manufacturers and logistics providers face rising due diligence, continuity and insurance pressures, with more emphasis on contractual resilience, supplier obligations and enforcement of delivery and quality standards under stress.
Smart mobility and delivery planning develop but are concentrated in larger urban centres, leaving gaps across regional and long-haul networks.
Logistics and manufacturing businesses must actively manage complexity across hybrid supply chains and regional performance differences.
Widespread smart mobility systems and more coordinated planning enable more efficient, connected logistics with fewer points of failure.
Contracting can shift from short-term contingency to longer-term optimisation, supporting collaboration models, integrated service agreements and stronger governance across logistics partners and infrastructure providers.
Critical minerals become an increasingly contested resource as demand grows, with limited mitigation from reuse and recycling at scale.
OEM transition risk rises sharply where sourcing, traceability and supplier ESG standards are weak, increasing exposure to procurement disputes, supply interruption and reputational and legal challenge linked to upstream practices.
Competition for critical minerals continues, but improving management reduces some constraints while electrification demand keeps pressure high.
Automotive and advanced manufacturing clients increasingly rely on tighter legal controls in supplier contracting, audit rights and substantiated traceability to protect continuity and manage scrutiny.
Battery supply chains develop stronger reuse and recycling routes that reduce critical mineral competition and improve long-term resource resilience.
OEMs and manufacturers can embed circularity into commercial strategy through clearer end-of-life responsibilities, secondary materials contracting and more defensible claims on recycled content and provenance.
High costs and uneven access to low carbon options slows adoption, while smart mobility models risk being perceived as urban-centric and inaccessible.
OEMs and mobility providers face higher exposure to consumer protection, product safety and communications risk as cost of ownership models evolve and customers challenge affordability, performance and sustainability claims.
Adoption grows but remains uneven, with confidence constrained by inconsistent infrastructure availability and the coexistence of competing vehicle and charging standards.
Mobility services and OEM offerings depend more heavily on robust contracting and governance around data use, service reliability, safety assurance and customer redress in a mixed market.
Lower energy bills and more coherent infrastructure supports broader adoption of low carbon mobility and associated services, improving market confidence.
OEMs, logistics operators and mobility platforms can scale new models more quickly where privacy, safety and substantiation controls are designed in from the outset rather than retrofitted.
What this means for mobility, manufacturing & logistics leaders
Transition risk has deep implications for capital allocation, supply chain strategy, infrastructure investment and commercial models across mobility, manufacturing and logistics. Across these sectors, transition risk is shaped by the gap between policy ambition and delivery capability. Even where direction is clear, delays in infrastructure, resource availability and behavioural change can materially affect outcomes for the sector.
The main lesson for mobility, manufacturing and logistics businesses is that infrastructure readiness, resource resilience and customer confidence are becoming connected. The future of mobility is no longer just a vehicle or fuel choice. It depends on charging access, grid capacity, route reliability, supplier obligations, technology standards and cost of ownership. Similarly, supply chain and resource pressures are no longer background operational risks. They shape procurement strategy, product design, business continuity planning, customer affordability, contractual exposure and the ability to prove that lower carbon products and services are credible in practice. For leadership teams, scenario analysis is no longer a reporting tool. It is a strategic capability that helps organisations:
- test the resilience of operational and supply chain models under different energy, policy and technology conditions
- prioritise investment across electrification, infrastructure and circular supply chains
- identify where transition exposure is highest across assets, geographies and customer segments
- position for growth in emerging markets such as low carbon manufacturing, smart logistics and mobility as a service
Scenario analysis provides a practical way to navigate this uncertainty. By exploring how transport systems, industrial processes and supply chains evolve across different pathways, organisations can make more informed decisions on where to deploy capital, how to redesign operations and how to build resilient systems that remain viable as the transition accelerates.