In-mold coating (IMC) Market Latest Analysis, Demand Trends, Growth Forecast

In-mold Coating (IMC) Market Summary Highlights

The In-mold coating (IMC) Market is increasingly shaped by lightweight composite manufacturing, electric vehicle exterior component demand, and pressure on manufacturers to reduce secondary finishing costs. IMC technologies are being integrated directly into molding processes for sheet molding compounds (SMC), bulk molding compounds (BMC), and polyurethane composite systems, particularly across automotive body panels, truck components, agricultural machinery, and industrial enclosures. The transition toward Class-A surface finishing in composite manufacturing is accelerating adoption as manufacturers seek lower volatile organic compound (VOC) emissions, shorter cycle times, and improved corrosion resistance.

Production economics remain central to the evolution of the In-mold coating (IMC) Market. Automotive OEMs are reducing paint shop dependence due to rising energy prices and stricter environmental regulations across Europe and North America. Simultaneously, Asia-Pacific manufacturers are scaling composite component production capacity, especially for electric mobility platforms and commercial transportation applications. The market is also experiencing a technology shift from solvent-based coating systems toward low-emission waterborne and UV-curable in-mold formulations.

Advanced resin systems and automation upgrades are improving coating uniformity and curing consistency, allowing IMC systems to penetrate applications previously dominated by conventional post-mold painting. However, raw material volatility for polyurethane precursors, epoxy additives, and specialty pigments continues to pressure manufacturer margins. Competitive intensity is therefore increasing around process optimization, robotics integration, and coating chemistry innovation.

Statistical Highlights of the In-mold Coating (IMC) Market

• Global demand for in-mold coating materials used in composite automotive panels is projected to exceed 420 kilotons by 2026, supported by expanding lightweight vehicle platforms.
• Automotive applications account for nearly 58% of total In-mold coating (IMC) Market consumption in 2026, led by pickup trucks, battery electric vehicles, and commercial transport components.
• In March 2025, the United States Department of Energy allocated more than USD 1.7 billion toward advanced domestic vehicle manufacturing modernization programs, indirectly supporting composite exterior panel production and IMC demand.
• Europe is projected to contribute approximately 27% of global IMC consumption by 2026 due to stricter VOC emission regulations affecting conventional paint operations.
• China’s composite molding capacity for transportation applications expanded by an estimated 11% during 2024–2025, increasing demand for integrated coating technologies in molded exterior components.
• Waterborne and low-VOC formulations are expected to represent nearly 46% of total in-mold coating consumption by 2026 compared with below 32% in 2023.
• Average processing cycle reductions achieved through integrated IMC systems range between 18% and 25% compared with separate coating and finishing operations.
• In January 2026, multiple North American commercial vehicle manufacturers increased composite body panel procurement volumes by more than 14% year-over-year, strengthening demand for Class-A in-mold finishes.
• Industrial equipment and agricultural machinery applications collectively account for nearly 19% of global In-mold coating (IMC) Market revenue generation in 2026.
• Polyurethane-based IMC systems continue to dominate product demand with an estimated 61% market share because of flexibility, surface quality, and weather resistance advantages.
• Automated robotic IMC dispensing systems are projected to witness more than 9% annual installation growth through 2028 across high-volume molding facilities.
• Asia-Pacific remains the largest regional manufacturing hub, contributing nearly 41% of global molded composite component output associated with IMC-compatible production lines in 2026.

Composite Lightweighting Trends Accelerating In-mold Coating (IMC) Market Penetration

The expansion of lightweight composite manufacturing in transportation industries remains one of the strongest structural drivers for the In-mold coating (IMC) Market. Automakers are increasingly substituting steel assemblies with sheet molding compound components to improve vehicle efficiency and offset battery weight increases in electric mobility platforms. This transition is creating sustained demand for integrated surface finishing technologies capable of delivering paint-ready quality directly during molding cycles.

In February 2025, the European Automobile Manufacturers’ Association reported that battery electric vehicle production volumes across the European Union increased by nearly 18% year-over-year. This increase significantly expanded demand for lightweight hoods, tailgates, roof modules, and aerodynamic panels manufactured using compression molding technologies compatible with IMC systems. Manufacturers are prioritizing integrated coating approaches because they reduce post-processing energy consumption while improving throughput consistency.

The shift is particularly visible in pickup trucks and commercial utility vehicles. Several North American OEMs expanded composite box panel production during 2024–2025 to reduce corrosion-related warranty costs. In-mold coating technologies are increasingly preferred in these applications because they provide superior chip resistance and Class-A surface quality while reducing sanding and repainting requirements.

Industrial machinery manufacturing is contributing additional momentum. Agricultural equipment producers are replacing conventional metal body structures with molded composite assemblies to reduce weight and improve weather resistance. IMC-enabled molded components reduce finishing complexity while supporting higher production scalability for large-format panels.

Environmental Regulations Reshaping Coating Technologies and Process Economics

Environmental compliance pressures are materially changing coating strategies across manufacturing industries. Conventional paint shop operations involve substantial VOC emissions, energy-intensive curing processes, and wastewater treatment requirements. In contrast, in-mold coating systems integrate finishing during molding, reducing emissions and lowering facility operating costs.

The European Chemicals Agency intensified scrutiny on solvent-heavy coating materials throughout 2024, prompting composite manufacturers to accelerate adoption of low-emission coating systems. Waterborne and hybrid IMC formulations consequently gained stronger industrial acceptance, particularly among automotive suppliers serving German and French OEM production networks.

In October 2025, Germany introduced expanded industrial decarbonization incentives targeting energy-intensive manufacturing operations. Composite component producers implementing integrated molding and coating systems became eligible for efficiency-linked subsidies covering automation and emissions-reduction investments. This directly improved the economic attractiveness of advanced IMC installations.

Energy economics are also influencing adoption patterns. Traditional paint curing systems require substantial thermal energy consumption. Rising electricity and natural gas prices across Europe and parts of Asia have increased operating expenses for standalone coating operations, making integrated in-mold finishing financially advantageous. Manufacturers deploying IMC technologies report measurable reductions in plant-level energy intensity because separate paint booth infrastructure can be partially eliminated.

The In-mold coating (IMC) Market is therefore increasingly linked not only to materials innovation but also to industrial sustainability targets and carbon reduction strategies.

Electric Vehicle Manufacturing Expansion Supporting Advanced Surface Finishing Demand

Electric vehicle manufacturers are placing greater emphasis on aerodynamic efficiency, corrosion protection, and exterior design differentiation. Composite body panels combined with IMC technologies support all three priorities simultaneously.

In April 2025, China’s Ministry of Industry and Information Technology confirmed additional investment support for advanced lightweight materials used in new-energy vehicles, contributing to expanded production capacity for molded composite components. Chinese suppliers increased procurement of automated dispensing and coating systems to meet growing OEM requirements for high-volume exterior panel manufacturing.

Battery enclosure systems and charging infrastructure housings are also becoming important downstream demand centers. These applications require chemically resistant and electrically stable coatings capable of maintaining surface durability under varying environmental conditions. IMC systems reduce defect rates and improve coating adhesion consistency in such technically demanding applications.

Commercial electric buses represent another important growth segment. Transit authorities in India, China, and Europe accelerated procurement programs during 2024–2026 to meet urban emissions targets. Composite front fascia components, rooftop housings, and aerodynamic side panels increasingly utilize in-mold coated surfaces to improve durability while minimizing maintenance costs.

The In-mold coating (IMC) Market is benefiting from this broader electrification ecosystem because EV manufacturers typically prioritize lightweighting and manufacturing efficiency simultaneously. As battery costs remain a central concern, automakers continue searching for production methods capable of reducing assembly complexity and lifecycle operating expenses.

Automation Integration Improving Throughput and Surface Consistency

Manufacturing automation is transforming the operational profile of composite molding facilities. Robotic dispensing systems, closed-loop viscosity monitoring, and digital process controls are improving coating precision while reducing material waste.

In June 2024, several Tier-1 automotive suppliers in the United States announced capacity expansions involving automated compression molding lines for exterior body components. These facilities integrated robotic IMC systems to improve dimensional consistency and reduce manual finishing requirements. Automation investments were partly driven by labor shortages affecting skilled finishing operations.

The adoption of smart manufacturing technologies is also reducing rejection rates. Real-time monitoring systems can now optimize coating thickness, curing behavior, and mold temperature profiles during production cycles. This is particularly important for high-gloss automotive applications where minor surface inconsistencies can significantly increase rejection costs.

Asian manufacturers are moving aggressively in this direction. Japanese and South Korean composite processors increased investment in AI-assisted molding analytics during 2025 to improve yield performance for premium automotive panels. Automated IMC integration supports faster production ramp-up while maintaining surface quality standards required by export-oriented vehicle manufacturers.

At the same time, automation is supporting broader application diversification. Appliance housings, electrical enclosures, and infrastructure panels increasingly use IMC-compatible molding systems because automated production lowers unit costs and improves scalability. This diversification is gradually reducing the In-mold coating (IMC) Market’s historical dependence on automotive applications alone.

Raw Material Volatility and Supply Chain Pressures Creating Strategic Shifts

Despite strong long-term adoption trends, raw material cost volatility continues to influence purchasing behavior across the In-mold coating (IMC) Market. Polyurethane intermediates, specialty additives, curing agents, and pigment materials experienced repeated pricing fluctuations between 2024 and 2026 due to feedstock disruptions and uneven chemical production recovery.

In August 2025, several European chemical producers announced temporary operating adjustments linked to elevated energy prices and feedstock constraints. This affected supply availability for certain IMC resin formulations and increased procurement lead times for composite manufacturers. As a result, OEMs and Tier-1 suppliers accelerated supplier diversification strategies and regional sourcing initiatives.

Manufacturers are also reformulating products to improve raw material flexibility. Increased research activity is focusing on bio-based polyols, lower-temperature curing systems, and additive optimization to reduce dependence on volatile petrochemical inputs. These developments are expected to gradually improve cost stability while supporting sustainability objectives across the broader composite manufacturing ecosystem.

Geographical Demand Dynamics Reshaping the In-mold Coating (IMC) Market

Regional demand patterns in the In-mold coating (IMC) Market are increasingly tied to composite manufacturing investments, electric vehicle localization programs, and industrial automation expansion. Demand concentration remains strongest in regions with established automotive composite ecosystems, particularly North America, Western Europe, China, Japan, and South Korea. However, emerging manufacturing corridors in India, Southeast Asia, and Eastern Europe are becoming strategically important due to rising commercial vehicle production and infrastructure equipment manufacturing.

The geographical structure of the market is also changing because OEMs are restructuring supply chains closer to end-use assembly plants. Integrated molding and coating operations reduce logistics costs associated with painted composite parts, encouraging regionalized IMC production capacity additions. This trend accelerated after 2024 as automotive suppliers faced continued freight volatility and stricter sustainability reporting requirements.

Segmentation Highlights Across the In-mold Coating (IMC) Market

• Automotive applications account for nearly 58% of global In-mold coating (IMC) Market demand in 2026, driven by EV body panels, pickup truck components, and lightweight commercial vehicles.
• Polyurethane-based IMC systems contribute approximately 61% of total product consumption due to superior flexibility and impact resistance.
• Waterborne and low-VOC formulations are projected to exceed 46% share of total IMC formulations by 2026 as emission regulations tighten globally.
• Asia-Pacific represents nearly 41% of global market volume, supported by large-scale composite component manufacturing expansion in China, Japan, and India.
• Compression molding applications dominate usage, accounting for over 63% of integrated coating installations globally.
• Exterior automotive body panels remain the largest application segment, generating nearly one-third of total IMC material demand.
• Industrial equipment and agricultural machinery applications collectively contribute around 19% of market revenues owing to increasing corrosion-resistant composite adoption.
• Commercial transportation applications are expected to witness demand growth above 8% annually through 2028 because of lightweight fleet modernization programs.
• North America remains the leading region for high-gloss Class-A IMC applications in pickup trucks and recreational vehicles.
• Demand for UV-curable in-mold coatings is increasing across electronics and appliance applications due to shorter curing cycles and lower energy consumption.

North America Maintains Leadership in High-Performance Composite Surface Finishing

North America continues to represent one of the most technologically advanced regions within the In-mold coating (IMC) Market. Demand is heavily concentrated in automotive exterior applications, heavy-duty truck manufacturing, agricultural machinery, and recreational vehicles. The United States remains the largest contributor due to its strong ecosystem of sheet molding compound processors and Tier-1 automotive suppliers.

In September 2025, multiple automotive suppliers in Michigan and Ohio expanded compression molding capacity to support electric pickup truck production programs. These projects collectively added more than 110,000 metric tons of annual composite processing capacity, strengthening regional demand for integrated coating systems. IMC adoption increased because OEMs sought to reduce paint shop bottlenecks while improving corrosion resistance for large-format exterior components.

Commercial vehicle manufacturing is another major demand catalyst. The American Trucking Associations highlighted continued fleet replacement activity during 2024–2026, particularly in medium- and heavy-duty vehicle segments. Composite aerodynamic panels with in-mold coated finishes are increasingly used to improve fuel efficiency and reduce maintenance costs.

Mexico is also emerging as a strategic manufacturing location for molded composite components. In July 2025, several international automotive suppliers announced additional investments in northern Mexico exceeding USD 600 million for lightweight vehicle component production. These facilities incorporated automated molding and IMC-compatible coating lines to serve North American assembly plants more efficiently.

European In-mold Coating (IMC) Market Influenced by Sustainability Policies

Europe’s market structure is strongly shaped by environmental regulations and industrial decarbonization initiatives. Manufacturers are under mounting pressure to reduce VOC emissions, wastewater generation, and energy-intensive finishing operations. This is accelerating the replacement of conventional post-paint systems with integrated in-mold coating technologies.

Germany remains the largest regional consumer due to its extensive automotive and industrial equipment manufacturing base. In March 2026, Germany expanded financial support programs for low-emission industrial technologies under its climate-neutral manufacturing initiative. Composite processors investing in energy-efficient molding and coating operations gained improved access to financing and tax incentives, increasing IMC system deployment.

France and Italy are seeing stronger adoption in commercial transport and specialty vehicle manufacturing. European bus electrification programs are creating demand for lightweight composite side panels and roof modules requiring durable Class-A finishes. The European Automobile Manufacturers’ Association reported that electric bus registrations across Europe increased by more than 21% between 2024 and 2025, directly supporting IMC-compatible component production.

The United Kingdom’s advanced composites sector is also contributing to demand growth. Aerospace-adjacent composite manufacturing technologies are increasingly being transferred into automotive and industrial applications, particularly for lightweight structural panels with integrated coatings.

However, elevated energy costs continue to pressure regional manufacturers. Some smaller coating operators reduced standalone paint line operations during 2025 because integrated molding and coating systems demonstrated lower long-term operating costs. This structural transition is reinforcing the position of the In-mold coating (IMC) Market across Europe.

Asia-Pacific Emerging as the Largest Manufacturing Hub for IMC-Compatible Components

Asia-Pacific accounts for the largest manufacturing output linked to the In-mold coating (IMC) Market due to rapid expansion in automotive, electrical equipment, and infrastructure-related composite applications. China remains central to regional demand because of its dominance in electric vehicle production and industrial manufacturing capacity.

In May 2025, China announced additional investment support exceeding USD 2.3 billion for advanced lightweight material manufacturing associated with new-energy vehicle supply chains. Composite processors responded by expanding automated compression molding capacity for exterior EV body panels and battery enclosure systems. This significantly increased regional demand for high-throughput IMC technologies.

Japan and South Korea continue focusing on premium automotive surface quality and process automation. Manufacturers in both countries increased deployment of robotic coating systems integrated directly into molding operations to improve consistency and reduce production waste. Japanese automotive exports rose during 2025, supporting demand for Class-A composite exterior components using advanced IMC formulations.

India is becoming a rapidly developing market due to commercial transportation expansion and agricultural mechanization. In January 2026, India approved new industrial manufacturing incentives supporting domestic electric bus and commercial vehicle production. Composite panel manufacturers consequently increased investment in lightweight body structures requiring integrated coating technologies.

Southeast Asia is witnessing gradual growth in appliance and industrial enclosure applications. Countries such as Thailand and Vietnam are attracting electronics manufacturing investments, supporting future adoption of low-cycle integrated coating systems for molded housings and protective panels.

Product Segmentation Reflecting Shift Toward Sustainable and Durable Coating Chemistries

Polyurethane-based coatings continue dominating the In-mold coating (IMC) Market because of their balance between flexibility, durability, and weather resistance. These systems are widely used in automotive body panels exposed to harsh environmental conditions and impact stresses.

Epoxy-based IMC formulations are gaining importance in industrial and electrical applications requiring stronger chemical resistance and dimensional stability. Infrastructure equipment manufacturers increasingly utilize epoxy systems for outdoor electrical housings and protective industrial covers.

Waterborne formulations are expanding rapidly as emission restrictions intensify globally. Manufacturers are investing heavily in low-VOC systems capable of maintaining gloss quality and adhesion performance without increasing curing complexity. This transition is particularly visible in Europe and North America where environmental compliance costs continue rising.

UV-curable technologies are emerging in niche applications requiring shorter production cycles and lower thermal energy consumption. Appliance and electronics manufacturers are evaluating these systems for molded aesthetic components where rapid throughput and reduced operational costs are critical.

Demand Trend, Adoption, and Statistical Outlook

Demand momentum in the In-mold coating (IMC) Market remains closely linked to growth in lightweight composite manufacturing. Global production of molded composite automotive components is projected to increase by more than 9% between 2025 and 2026, with electric vehicle platforms contributing a substantial share of incremental volume demand. Adoption rates are strongest among manufacturers operating high-volume compression molding facilities because integrated coating systems reduce labor intensity and improve production efficiency.

By 2026, nearly half of newly commissioned automotive composite panel production lines globally are expected to include integrated IMC dispensing systems as standard process infrastructure. The transition is particularly evident in commercial transportation, where fleet operators increasingly prioritize corrosion resistance and reduced maintenance requirements. Simultaneously, industrial equipment manufacturers are expanding use of IMC-coated composite housings to improve weather durability while reducing component weight.

The market is therefore evolving from a specialized automotive finishing technology into a broader industrial manufacturing solution aligned with energy efficiency, automation, and sustainable production priorities.

Competitive Positioning and Market Share Structure in the In-mold Coating (IMC) Market

The In-mold coating (IMC) Market remains moderately consolidated, with multinational coating manufacturers, specialty chemical companies, and composite process technology suppliers controlling a substantial portion of global revenues. Market competition is increasingly centered on low-VOC chemistry development, integrated automation compatibility, and coating systems optimized for high-volume automotive composite manufacturing.

Large companies maintain advantages through vertically integrated supply chains, long-term OEM relationships, and proprietary formulation technologies. Simultaneously, regional specialty coating suppliers are gaining market visibility by offering customized IMC systems tailored for industrial machinery, agricultural equipment, commercial transportation, and electrical enclosure applications.

Competitive intensity increased significantly during 2024–2026 as automotive manufacturers accelerated lightweight component adoption and environmental regulations tightened across Europe, North America, and Asia-Pacific.

Major Companies Dominating the In-mold Coating (IMC) Market

Akzo Nobel continues to maintain a strong presence in advanced coating technologies used for automotive composite exterior applications. The company has focused heavily on waterborne and low-emission coating systems compatible with lightweight molded components. Demand for these systems increased as European manufacturers accelerated decarbonization initiatives and reduced dependence on conventional paint operations.

PPG Industries remains one of the most influential suppliers in the In-mold coating (IMC) Market because of its extensive automotive coatings portfolio and advanced thermoset-compatible technologies. The company expanded focus on sustainable coating chemistries during 2025, particularly for electric vehicle exterior components and commercial transportation applications requiring high-durability Class-A finishes.

BASF SE continues strengthening its market position through integrated polyurethane material expertise and advanced resin system development. BASF’s technologies are increasingly used in battery enclosure systems, lightweight exterior panels, and industrial composite applications where weather resistance and structural durability are critical. The company also increased investment in lower-carbon and bio-attributed coating technologies to align with evolving industrial sustainability requirements.

Chem-Trend remains highly influential in mold processing chemicals and integrated composite manufacturing technologies. Its product offerings include mold release systems, process chemicals, and intelligent monitoring technologies supporting automated IMC-compatible production environments. The company’s growth strategy has focused on supporting large-scale automotive composite manufacturing facilities in Asia and North America.

Nippon Paint Holdings has strengthened its competitive position through solvent-free and low-VOC IMC developments targeting automotive applications. Japanese automotive manufacturers increasingly adopted advanced integrated coating technologies to reduce downstream painting stages and improve manufacturing efficiency.

Toyoda Gosei has expanded its role in automotive exterior composite technologies using advanced in-mold coating systems for large molded plastic body structures. Its development activities are closely aligned with growing electric vehicle production and lightweight automotive design strategies in Japan and global export markets.

Other important participants include:

• Fujichem Sonneborn
• Protech Group
• KECK Chimie
• Emil Frei GmbH & Co. KG
• Mankiewicz Gebr. & Co.
• Sherwin-Williams
• Kansai Paint
• Axalta Coating Systems

These companies compete primarily through application-specific formulations, enhanced curing performance, weather resistance, and customized surface aesthetics.

In-mold Coating (IMC) Market Share by Market Players

The In-mold coating (IMC) Market is characterized by a combination of global chemical corporations and specialized regional suppliers. Market share concentration is strongest in automotive applications because OEM qualification requirements and performance standards create high entry barriers.

The leading multinational manufacturers collectively account for more than half of total global market revenues. Their dominance is supported by:

• Long-term automotive OEM contracts
• Global manufacturing infrastructure
• Advanced R&D capabilities
• Proprietary resin and additive technologies
• Integrated automation support systems

Specialty composite process chemical companies contribute a significant share of market revenues, particularly in high-performance molding operations where process consistency and coating precision are essential.

Regional suppliers continue gaining share in industrial equipment and non-automotive applications due to faster customization capabilities and localized technical support. Their growth is particularly noticeable in:

• Agricultural machinery coatings
• Electrical infrastructure housings
• Heavy equipment composite panels
• Appliance and electronics enclosures

Asia-Pacific manufacturers are also increasing competitive pressure through lower-cost manufacturing and expanding electric vehicle supply chains. Chinese and South Korean suppliers are investing heavily in automated coating integration technologies to improve export competitiveness and secure contracts from global automotive manufacturers.

Product Innovation Defining Competitive Advantage

Technology differentiation remains the most important competitive factor in the In-mold coating (IMC) Market. Manufacturers are increasingly prioritizing:

• Low-temperature curing systems
• Waterborne formulations
• UV-resistant coatings
• Faster molding cycle compatibility
• Improved chip resistance
• Enhanced gloss retention
• Robotic dispensing integration

Polyurethane-based IMC systems continue dominating commercial demand because of their superior flexibility, weather resistance, and impact durability. These coatings are extensively used in pickup truck body panels, electric vehicle exterior components, and commercial transportation structures exposed to harsh environmental conditions.

Epoxy-based IMC technologies are gaining stronger traction in industrial infrastructure and electrical equipment applications due to improved chemical resistance and dimensional stability.

Waterborne formulations are witnessing rapid adoption across Europe and North America as emission regulations become stricter. Manufacturers capable of maintaining high-gloss finish quality while reducing VOC emissions are gaining stronger competitive positioning among automotive OEMs.

UV-curable IMC technologies are also emerging in appliance and electronics applications where shorter production cycles and lower thermal energy consumption provide operational advantages.

Strategic Expansion and Industry Consolidation Activity

Capacity expansion and strategic partnerships became major competitive themes between 2024 and 2026. Several coating and composite manufacturers expanded automated molding operations to support rising electric vehicle production and lightweight commercial transportation demand.

North American suppliers increased investment in robotic IMC dispensing systems during 2025 to improve throughput and reduce labor dependency in high-volume automotive facilities. These investments were especially concentrated in Michigan, Ohio, and Mexico where electric pickup truck and commercial vehicle manufacturing programs expanded.

European manufacturers focused heavily on sustainability-driven modernization projects. Multiple German and French composite processors upgraded facilities with energy-efficient integrated molding and coating systems to reduce operating costs and comply with stricter industrial emissions requirements.

In Asia-Pacific, Chinese manufacturers accelerated production capacity additions for lightweight EV components during 2025 and 2026. Several suppliers introduced automated compression molding lines designed specifically for IMC-compatible battery enclosure systems and exterior body panels.

Japanese companies intensified collaboration between coating developers and automotive component manufacturers to improve surface finish consistency and reduce post-processing requirements. This trend strengthened demand for highly specialized integrated coating formulations capable of supporting premium automotive quality standards.

Recent Industry Developments and Market Activity

• January 2024: Multiple North American automotive suppliers expanded SMC composite production capacity for electric pickup truck body panels, increasing demand for integrated IMC technologies.
• June 2024: Asian automotive component manufacturers accelerated adoption of robotic IMC dispensing systems to improve surface consistency and reduce finishing defects.
• October 2024: European composite manufacturers increased investment in low-VOC coating systems following tighter environmental compliance requirements across industrial finishing operations.
• March 2025: Nippon Paint Automotive Coatings introduced advanced solvent-reduction IMC technology for automotive molded components aimed at lowering manufacturing emissions.
• July 2025: Several Chinese lightweight materials manufacturers announced expansion of automated molding facilities supporting EV exterior panel production.
• September 2025: Commercial vehicle manufacturers in North America increased procurement of composite aerodynamic structures using polyurethane-based in-mold coating systems.
• February 2026: German industrial manufacturers expanded energy-efficient composite production programs integrating advanced in-mold coating technologies to reduce plant-level energy consumption.
• April 2026: Japanese automotive suppliers strengthened collaboration on high-gloss Class-A IMC surface technologies for next-generation electric mobility platforms.