Roland Berger: Navigating the European Chemicals Industry Transformation

European Chemicals Industry at a Critical Crossroads

Europe’s chemicals industry stands at the most consequential inflection point in its modern history. As the world’s second-largest chemicals producer, the industry must simultaneously decarbonize its energy systems, reshape its linear production models into circular ecosystems, and reinforce strategic value chains to secure autonomy amid intensifying geopolitical uncertainty. Roland Berger’s comprehensive analysis reveals the scale of this challenge — and the opportunities embedded within it.

The situation is stark. Europe’s share of global chemicals industry investment has halved over the past two decades, projects are being canceled or postponed at alarming rates, and many chemical companies are prioritizing investment elsewhere. High energy costs, fierce competition from the US, China, and the Middle East, and a regulatory environment that imposes strict requirements without matching incentive programs have created a perfect storm of headwinds for European chemical producers.

Yet abandoning the European chemicals sector would be strategically catastrophic. The industry underpins virtually every manufacturing value chain, from automotive to electronics, construction to agriculture. Its transformation is essential not only for Europe’s climate goals but for maintaining the industrial sovereignty that enables economic independence. This analysis examines Roland Berger’s findings on how European chemicals companies can navigate this transformation while capturing emerging opportunities.

The EUR 2 Trillion Decarbonization Challenge

The financial magnitude of Europe’s chemicals transformation is staggering. Under the European Green Deal’s ambition to become a global sustainability frontrunner, Roland Berger estimates that additional investments exceeding EUR 2 trillion are required in the chemicals industry alone to reach climate and circularity targets by 2050. This figure reflects the fundamental restructuring needed to convert an industry optimized over decades as an efficient linear process based on fossil fuels into a circular, decarbonized ecosystem.

The chemicals industry accounts for one-fifth of total energy consumption in Western Europe, consuming 271 TWh in process energy and the equivalent of 434 TWh in feedstock across Belgium, France, Germany, and the Netherlands. The vast majority of this energy derives from fossil sources — natural gas and petroleum-based products — making the decarbonization task enormously complex and capital-intensive.

What makes the investment gap particularly concerning is the trajectory. Rather than accelerating investment to meet 2050 targets, Europe has been losing ground. Global competitors in the US (benefiting from low-cost shale gas), China (leveraging state-directed industrial policy), and the Middle East (capitalizing on abundant hydrocarbon feedstocks) are attracting an increasing share of chemicals investment. Without a dramatic reversal of this trend, Europe risks not only missing its climate targets but permanently diminishing its industrial capacity.

Five Pathways to Decarbonize European Chemicals Production

Roland Berger identifies five key success factors for decarbonizing the chemicals value chain, each representing a distinct but interconnected pathway that must be pursued simultaneously. These pathways form the technical backbone of Europe’s chemicals transition strategy.

The first pathway involves replacing existing fossil electricity sources with renewable energy. As Europe expands its renewable electricity capacity through wind, solar, and other clean sources, chemicals producers can progressively decarbonize their electricity consumption. The second pathway focuses on electrification — deploying heat pumps and electric boilers to electrify processes, particularly those requiring heat below 500°C. This represents a significant opportunity to eliminate fossil fuel combustion in thermal processes.

The third pathway, indirect electrification, involves replacing fossil hydrogen with green hydrogen to decarbonize a significant portion of feedstock requirements. Green hydrogen, produced through electrolysis powered by renewable electricity, can substitute for the grey hydrogen currently derived from natural gas in many chemicals processes. The fourth pathway emphasizes enhancing the efficiency of chemicals processes themselves — doing more with less energy through process optimization, waste heat recovery, and advanced catalysis.

The fifth pathway addresses the systemic challenge of renewable energy intermittency. By increasing the flexibility of electricity consumption, chemicals producers can accommodate the variable output of wind and solar generation, potentially turning a challenge into an advantage by consuming electricity when it is abundant and cheap. Together, these five pathways form a comprehensive decarbonization framework that maintains industrial productivity while eliminating fossil energy dependencies.

Building the Circular Chemicals Ecosystem

Beyond energy decarbonization, the European chemicals industry must fundamentally transform its material flows from linear to circular. Roland Berger outlines how fossil-based feedstocks must be replaced by a combination of clean syngas, biobased materials, and recyclates, requiring key chemicals processes to adapt to entirely new feedstock profiles.

Three complementary strategies drive circularity in chemicals. Mechanical recycling of waste products where possible, combined with advanced recycling technologies for hard-to-recycle wastes and residues from mechanical recycling, can substitute a significant portion of virgin feedstock. For truly unrecyclable products, incineration with carbon capture and utilization (CCU) can produce circular synthetic feedstock, closing the carbon loop. Biobased feedstock fills the remaining gap, utilizing biomass as a renewable input to the chemicals value chain.

The potential environmental impact is remarkable. Roland Berger notes that the combination of biobased material and recycling can even lead to negative carbon emissions — a scenario where the chemicals industry becomes a net carbon sink rather than a major emitter. However, achieving this potential requires massive investment in recycling infrastructure, carbon capture technology, and biomass supply chains, all of which are currently underdeveloped relative to the scale of transformation needed.

End-market changes add another dimension to the circular transition. While some traditional chemicals markets will decline, new markets are emerging for products that support the broader energy transition: insulation materials, wind turbine components, electric powertrain materials, battery chemicals, low-carbon fuels, and circular packaging. Companies that position themselves in these growing segments can offset declines in conventional product lines.

Competitive Pressures from the US, China, and the Middle East

The competitive landscape for European chemicals has deteriorated significantly, with pressure mounting from three major regions, each leveraging distinct structural advantages. Understanding these competitive dynamics is essential for European companies developing their strategic responses.

The United States benefits from abundant, low-cost shale gas that provides both cheap energy and competitive petrochemical feedstock. The Inflation Reduction Act (IRA) has further strengthened the US position by providing substantial incentives for clean energy and industrial investment, attracting chemicals companies to locate new capacity in North America. The combination of cheap energy, generous incentives, and a large domestic market makes the US an increasingly compelling destination for chemicals investment that might otherwise flow to Europe.

China’s chemicals industry has expanded dramatically, supported by state-directed industrial policy, massive infrastructure investment, and growing domestic demand. Chinese chemicals producers benefit from scale advantages, access to state financing, and an integrated approach to industrial development that links chemicals production with downstream manufacturing. The Belt and Road Initiative has also expanded Chinese chemicals market access across Asia and beyond.

Middle Eastern chemicals producers leverage their position at the bottom of the global cost curve for fossil-based feedstocks. With access to the world’s cheapest natural gas and petroleum, these producers can manufacture commodity chemicals at costs that European competitors struggle to match, particularly as European energy prices have risen following the disruption of Russian gas supplies. Some Middle Eastern producers are also investing in green hydrogen and renewable energy, positioning themselves for continued competitiveness in a decarbonized future.

Value Chain Disruption and Emerging Opportunities

Roland Berger’s analysis reveals that different chemicals value chains will experience dramatically different trajectories in the coming decades. Some will remain resilient, others will be disrupted or broken apart, and entirely new value chains will emerge driven by strategic autonomy requirements and the energy transition. Understanding these dynamics is crucial for investment and strategic positioning decisions.

Resilient value chains are those where European producers maintain structural advantages — typically in specialty chemicals, advanced materials, and products where proximity to European end-markets creates logistical and service advantages. These chains benefit from Europe’s deep innovation ecosystem, skilled workforce, and strong customer relationships that are difficult for distant competitors to replicate.

Disrupted value chains face the most significant transformation risk. These include commodity chemicals where European cost positions are weakest, products heavily dependent on fossil feedstocks without clear circular alternatives, and chains where global trade patterns are shifting production to lower-cost regions. Companies positioned in these chains must either find ways to radically improve their cost positions or strategically transition toward higher-value segments.

Emerging value chains represent the most significant opportunity. Driven by Europe’s strategic autonomy ambitions and the energy transition, new demand is growing for battery materials, hydrogen economy chemicals, circular polymers, and advanced materials for renewable energy infrastructure. Companies that position early in these chains can secure advantaged positions as demand scales.

Strategic Autonomy and the European Chemicals Footprint

Geopolitical developments have elevated strategic autonomy from an abstract policy concept to an urgent industrial priority. For the European chemicals industry, this means ensuring that critical chemicals supply chains remain accessible and resilient, reducing dependencies on potentially unreliable trading partners, and maintaining the domestic production capabilities needed to serve essential industries.

The COVID-19 pandemic exposed vulnerabilities in globalized chemicals supply chains, while the Russia-Ukraine conflict demonstrated the risks of energy dependency. These experiences have strengthened the case for maintaining and developing European chemicals production capacity, even when short-term economics might favor offshoring. The question is not whether European chemicals production has strategic value — it clearly does — but how to make the economics work while maintaining that strategic position.

Roland Berger emphasizes that companies must pinpoint the specific value of their European footprint. For some products and value chains, the strategic premium of European production is high enough to justify above-market investment returns. For others, the economics may never work, and resources should be redirected to more promising opportunities. This portfolio approach — investing where the European premium is real while exiting positions where it is not — requires sophisticated analysis of both market dynamics and geopolitical risk.

Innovation and Existing Strengths as Competitive Advantages

Europe’s chemicals industry, despite its current challenges, possesses significant structural strengths that can serve as foundations for competitive advantage in the transition. Roland Berger recommends that companies double down on existing strengths and innovation rather than attempting to compete across all product categories.

European chemicals companies lead the world in many specialty and performance chemicals segments, where technical excellence, application expertise, and customer intimacy create durable competitive moats. These advantages are particularly valuable in segments serving the energy transition, where novel material requirements demand intensive collaboration between chemicals producers and technology developers.

The European innovation ecosystem — comprising world-class research universities, government research institutions, and private R&D centers — provides a structural advantage that competitors cannot easily replicate. Germany alone accounts for a disproportionate share of global chemicals patents, while the Netherlands, Belgium, and France host leading chemicals research clusters. Leveraging this innovation infrastructure to develop next-generation sustainable chemicals processes and products is essential for maintaining European leadership.

Existing industrial clusters, particularly in Germany’s Ruhr region, the port areas of Antwerp and Rotterdam, and France’s chemical corridors, provide integration advantages that reduce costs and improve efficiency. These clusters, with their shared infrastructure, utility networks, and logistics systems, can serve as platforms for the circular chemicals ecosystem — provided they receive the investment needed to transform their fossil-based foundations.

Future-Proof Business Models for European Chemicals

Developing business models that remain viable through the transition requires chemicals companies to fundamentally rethink their value propositions and revenue models. Roland Berger’s fourth recommendation — develop future-proof business cases and models — recognizes that the traditional volume-based, commodity-focused approach will not sustain European chemicals through the transition.

Future-proof business models in European chemicals share several characteristics. They emphasize value over volume, focusing on products and services where European capabilities command premium pricing. They incorporate circularity as a core business principle rather than a compliance obligation, creating revenue streams from recycling, material recovery, and circular product design. They leverage digital technologies for process optimization, predictive maintenance, and customer engagement.

Understanding the future of end-markets is equally critical. As the energy transition reshapes demand patterns, chemicals companies must anticipate which products will grow, which will decline, and where entirely new applications will emerge. Products supporting electrification (battery materials, cable insulation, electronic materials), renewable energy (wind turbine resins, solar cell components), and sustainable construction (advanced insulation, low-carbon cement additives) represent significant growth opportunities for European producers positioned to serve them.

Partnerships and Policy Action for the European Chemicals Transition

Roland Berger’s final recommendation — build partnerships — reflects the reality that no single company can execute the European chemicals transition alone. The scale of infrastructure investment, the complexity of circular value chains, and the need for coordinated policy action all demand collaborative approaches that transcend traditional competitive boundaries.

Cross-value-chain partnerships are essential for building the circular chemicals ecosystem. Waste producers, recyclers, chemicals companies, and end-product manufacturers must collaborate to create the material flows, quality standards, and economic models that make circularity viable at industrial scale. These partnerships often require sharing pre-competitive knowledge and coordinating investment timing in ways that challenge conventional business practices.

Policy engagement represents another critical partnership dimension. Roland Berger notes that Europe sets strict regulatory frameworks for the transition but lacks strong and transparent incentive programs — a structural imbalance that must be addressed. Companies must engage constructively with policymakers at European and national levels to develop regulatory frameworks that enable rather than constrain the transition, while advocating for incentive programs that can match the billions being offered by competing regions.

The clock is ticking. Since 2023, the chemicals industry has already begun restructuring its European footprint, and without decisive action from both industry and policymakers, this process will continue, potentially diminishing Europe’s capabilities to make the transition at all. The window for action is narrowing, but the opportunities for companies that act strategically remain significant.