In 2026, persistent overcapacity and uneven end-market demand were among several factors that constrained a broad-based recovery across the chemicals industry. Moreover, geopolitical disruptions became a defining force for the industry, with disruptions in the Middle East reshaping feedstock costs and availability, chemical supply chains, and regional competitiveness. Against the same macroeconomic backdrop, results varied significantly from company to company during the first half of the year, demonstrating that performance is being driven less by the business cycle and more by structural factors such as feedstock position, portfolio mix, and value chain integration.1
Some in the industry are looking to 2027 for anticipated stability and market tailwinds. However, 2026 exposed some structural vulnerabilities in the industry (figure 1). Therefore, restoring balance will likely require a longer time horizon. To help navigate this environment and better position themselves for the future, some chemical companies may focus on areas within their control, such as portfolio management, disciplined capital allocation, operational excellence, commercial sophistication, innovation, and technology adoption.
A strategic question is no longer when the downcycle will end, but how companies can create value despite uncertainties. Some leaders may choose to adjust their portfolio to include specialty products, application solutions, and services, while strengthening customer intimacy, reinvesting in critical capabilities, and reinventing operating models by leveraging artificial intelligence and digital technologies. Some companies may need to manage a dual operating model, combining commodity-business discipline with the innovation, partnership, and technical fluency required for specialty markets.
Against this backdrop, the chemical industry is expected to undergo certain shifts, which frame the five trends we explore in this outlook.
Multiple geopolitical and weather-related disruptions reshaped chemical supply chains in 2026. These disruptions constrained Gulf-linked flows of energy, feedstocks, and certain key chemicals, including polypropylene, methanol, and ammonia.2 In response, some companies have shifted production to plants in unaffected geographies and rerouted cargoes, which led to increased transit times and freight costs (figure 2).3 These diversions initially increased traffic through the Panama Canal.4 Subsequently, lower rainfall reduced water levels and prompted restrictions on transit capacity, creating additional shipping delays.5 Meanwhile, low water levels of the Rhine River and the ongoing Russia-Ukraine war continue to affect supply chains.6
These disruptions are driving companies to view geopolitical, trade, and weather events as key strategic and operational considerations rather than simply as procurement or supply chain risks. Supply continuity now affects production allocation, customer service, working capital, portfolio choices, and capital deployment. Resilience is increasingly viewed as table stakes. An opportunity likely lies in deploying redundancy and flexibility where they create economic value.
In 2027, some chemical companies could move from optimizing a single global supply network to managing a portfolio of supply, inventory, and transport options. However, strategies may vary by subsector and market. Commodity producers will likely seek optionality across feedstocks, production sites, and logistics lanes by expanding flexibility through dual sourcing, regional production, tolling arrangements, and alternate logistics routes. Meanwhile, specialty chemical and industrial gas companies may favor regional production and customer-proximate infrastructure.
Capital allocation should reflect this shift. Some companies may prioritize investments in localized storage, supply chain visibility tools, and scenario-based planning. This may be especially true for regions where even a single disruption could halt a plant or affect a key customer relationship. Companies may also attempt to rebalance portfolios where feedstocks or inputs are concentrated in a few regions or suppliers, reviewing these commitments through a higher geopolitical-risk lens.
In 2026, companies continued reshaping their portfolios. Following a historically high number of plant-closure announcements in 2025, the pace of new announcements eased as companies increasingly moved from announcing closures to implementing them.7 Divestitures, carve-outs, and proposed spin-offs further separated commodity businesses from higher-value assets. Mergers and acquisitions became increasingly selective and strategic, with buyers prioritizing assets that provide feedstock access, technology, scale, integration, and downstream advantages (figure 3).8 Investment also continued to vary by geography and product. For instance, while China continued adding capacity, investment activity in Europe remained relatively muted; and on the other hand, capital was concentrated in electronics, advanced materials, and advantaged US assets.9
The industry remains structurally oversupplied, particularly in commodity chains exposed to Chinese capacity growth.10 While disruption in the Middle East has temporarily shifted utilization and pricing in favor of some producers, it has not resolved excess capacity.11 Closure announcements may have revealed areas where value can no longer be defended, and mergers and acquisitions appear as though it is being used to improve cost position, integration, and strategic focus—not to simply increase scale. All in all, the industry appears to be shrinking undifferentiated, high-cost capacity while funding assets with stronger structural advantages.
In 2027, chemical companies will likely move from managing broad portfolios to making strategic choices that bring focus to select parts of the business. Announced rationalization programs may continue to be translated into physical closures and permanent capacity reductions. Portfolio separations and sales to strategic or private equity buyers will likely continue, especially in segments where a business could perform better as part of a more focused or consolidated platform. M&A should remain selective, centered on assets with structural cost or market advantages. Due diligence may increasingly examine factors related to existing and potential tariffs, trade measures, customer relationships, feedstock relationships, and applicable regulatory requirements.
Rationalization can create value when it funds a sharper reinvestment strategy. Some companies have identified opportunities but lack the cash, staffing, or management capacity to pursue them all. Partnerships and selective capital commitments may therefore become more important, concentrating resources in assets with structural advantages.12
The chemical industry entered 2026 with uneven demand across traditional markets, but stronger activity in selected advanced manufacturing segments.13 Semiconductor-related gases, electronic materials, high-purity water, and fab infrastructure supported growth, while aerospace and space supported demand for specialty materials, helium, and hydrogen.14 Biopharma, cleanroom protection, data-center thermal management, and electric vehicle battery applications added momentum.15 At the same time, some companies appear to have become more selective about large, standalone hydrogen and energy-transition projects, prioritizing opportunities with clear customer commitments and more visible returns.
More than 80% of basic and specialty chemicals are purchased directly by industrial sectors, making the industry’s trajectory highly dependent on where industrial customers invest.16 In 2026, industrial sectors tied to semiconductors, aircraft, and pharmaceuticals grew more than most other traditional chemical end markets.17 An opportunity that emerged involved converting existing capabilities into higher-value positions: process-critical materials for chips, qualified materials for aerospace, and healthcare-grade chemistry for complex therapeutics.
In 2027, chemical companies could continue reshaping portfolios toward advanced-manufacturing ecosystems (figure 4). Semiconductor fabs and advanced packaging facilities will likely continue to attract investment in high-purity and specialty gases, electronic chemicals, process-water treatment, hydrogen, and on-site supply systems.18 Companies could continue expanding capacity near major customer clusters in North America and Asia.19
Industrial gases illustrate how customer-production economics can create relative resilience. Demand is linked to several industrial sectors, such as electronics, manufacturing, energy, metallurgy, and healthcare.20 Within these markets, high-purity gases and other specification-critical inputs can support premium economics because qualification requirements and production capabilities raise barriers to substitution.21
The result will likely be a more focused industry—one that is less willing to add undifferentiated commodity volume and more willing to invest in resilient, high-value demand. However, these areas, too, are subject to volatility. Leaders could combine chemical expertise with infrastructure, applications engineering, and life-cycle service.
Some chemical customers are increasingly buying for confidence, continuity, and outcomes rather than to simply procure molecules.22 Supply risks and more demanding applications are pushing some suppliers to make reliability, visibility, technical support, and application expertise part of the offer.23 Some chemical companies are leveraging AI to accomplish this, including identifying unmet customer needs, accelerating new formulations, and optimizing plant operations around incremental innovations.24 Consequently, AI spending in the chemical industry is projected to rise from US$1.4 billion in 2024 to US$8 billion in 2029.25
The industry is shifting from selling chemistry at scale to solving customer problems. Defensible opportunities are often specification-critical, qualified into customer processes, and supported by infrastructure or technical services. In aerospace, preformed 3D-printed sealants can reduce manual installation time. In coatings, digital formulation tools can help customers compare additives, troubleshoot defects, and access regulatory information. AI-enabled recipe adjustment in color and fragrance can compress trial-and-error cycles, incorporate consumer feedback, and improve right-first-time performance.26
Chemical companies can create more value by applying their expertise to a customer’s process, rather than simply selling them more products (figure 5). AI can identify unmet needs by analyzing customer usage, performance, and service data; help scientists design tailored formulations; and translate those insights into plant-level improvements in yield, quality, dosing, energy, and waste. This creates a reinforcing cycle: Closer customer collaboration generates better data; better data improves innovation; and better innovation deepens customer relationships.
In 2027, chemical suppliers are expected to package expertise commercially and use AI to help move customers faster from problem definition to solution. Companies will likely build partnership models around priority accounts that link commercial teams with scientists and plant operators. They are expected to continue pursuing long-term supply relationships and technical capabilities to make qualified materials harder to substitute. More companies may treat “beyond the molecule” as a monetizable model: Trusted supply, applied expertise, digital tools, and AI-enabled collaboration could become part of the product itself.
In 2026, some chemical companies began moving beyond restructuring toward redesigning how their businesses operate. Cost-cutting programs and asset closures addressed part of the challenge, but may not be sufficient. As a result, some companies could consider combining portfolio and asset actions with clearer decision rights, process ownership, shared services, enterprise resource planning modernization, and smart operations. The focus has shifted from reducing headcount to removing duplication, simplifying decision rights, and reallocating talent toward higher-value work.
The next margin opportunity will likely focus more on building a structurally lower-cost but more responsive enterprise. Companies often want faster decisions, better asset utilization, stronger working-capital performance, and greater resilience amid regional demand shifts and persistent volatility. Achieving these outcomes involves connecting physical operations, technology, talent, legal entities, and intercompany economics.
Chemical companies may increasingly need to operate across two distinct business archetypes: commodity and specialty businesses. Commodity businesses will likely continue to require scale, cost discipline, asset reliability, feedstock advantage, and supply chain efficiency. Specialty businesses will likely require customer intimacy, faster innovation cycles, technical capability, and application expertise. Managing both within one enterprise could fundamentally reshape the commercial operating model.27
Heading into 2027, the chemical industry has limited evidence that a broad-based cyclical recovery will resolve its core challenges.28 Structural overcapacity, uneven demand, geopolitical volatility, and regional cost differences will likely continue to shape performance. However, the defining advantage for the industry may be its ability to make informed choices about assets, markets, operating models, geographies, technologies, and growth bets and then execute those choices with discipline (figure 6).
In 2027, resilience may mean more than absorbing disruption. It could mean having the flexibility to redirect supply, capital, and talent; the insight to anticipate customer needs; and the operating model to act quickly. Companies that make informed choices, simplify their businesses, improve asset and working-capital performance, and execute selectively on innovation and technology should be well positioned to create value—regardless of when a broad-based recovery ultimately arrives.