Casting and Forging Market Size, Share, Growth, and Industry Analysis, By Type (Closed Die Forging, Open Die Forging, Sand Casting, Die Casting), By Application (Automotive, Aerospace, Industrial Machinery, Energy), Regional Insights and Forecast From 2026 To 2035

Casting and Forging Market Overview

The global casting and forging market size is estimated at USD 390926.26 Million in 2026 and is expected to reach USD 574234.71 Million by 2035 at a CAGR of 3.92% during the forecast from 2026 to 2035.

The casting and forging market remains a core segment of global industrial manufacturing, supported by automotive, aerospace, energy, rail, marine, and industrial machinery production. Global casting output crossed 1.2 billion metric tons in 2023, while closed-die forging production exceeded 20 million metric tons worldwide in 2024. Automotive applications represented 35% of total casting demand and 40% of forged component consumption. Steel castings accounted for 40% of global material usage, while aluminum represented 35% due to lightweight vehicle production. Asia-Pacific contributed 46% of global manufacturing activity, supported by China, India, Japan, and South Korea. Automation adoption in forging plants reached 42% during 2025.

The United States casting and forging market maintained strong industrial demand in 2024, with forging production reaching 396,000 tons. Automotive applications represented 40% of domestic demand, aerospace accounted for 27%, and industrial machinery contributed 18%. Michigan, Ohio, and Illinois generated 48% of national forging output. Closed-die forging represented 46% of production, while open-die forging accounted for 30%. Aluminum forgings captured 27% of the U.S. market due to electric vehicle manufacturing expansion. Aerospace forged components using titanium alloys represented 21% of domestic aerospace applications. The U.S. defense sector continued increasing procurement of forged aircraft structures and turbine components during 2025.

Key Findings

• Key Market Driver: Automotive manufacturing contributes 40% of forging demand, while lightweight aluminum components account for 35% of casting material consumption and electric vehicle structural casting demand increased by 18% during 2025.
• Major Market Restraint: Energy-intensive production impacts 36% of forging facilities globally, while material wastage in open-die operations remains near 32%, increasing production inefficiencies across steel and alloy processing units.
• Emerging Trends: Automation penetration reached 42% of modern forging plants, aluminum and titanium alloy adoption exceeded 50% in advanced manufacturing applications, and digital process monitoring expanded by 35% during 2025.
• Regional Leadership: Asia-Pacific controlled 46% of global casting and forging production, Europe held 28%, North America accounted for 22%, and Middle East & Africa contributed 9% of industrial manufacturing output.
• Competitive Landscape: The top two market participants collectively controlled 34% of global forged component supply, while the leading automotive forging manufacturers accounted for 44% of heavy commercial vehicle applications.
• Market Segmentation: Closed-die forging represented 44% of total forging output, open-die forging accounted for 32%, sand casting captured 34% of process demand, and automotive applications contributed 35% globally.
• Recent Development: Digital manufacturing technologies were integrated into 35% of forging facilities between 2023 and 2025, while robotic casting operations increased by 21% in automotive component production lines.

Casting and Forging Market Latest Trends

The casting and forging market is experiencing rapid transformation through lightweight materials, digital manufacturing, and high-strength alloy adoption. Aluminum casting usage increased by 35% globally during 2024 due to rising electric vehicle production. Structural giga-casting technologies gained momentum among automotive manufacturers, reducing component assembly counts by 70% in selected vehicle platforms. Multi-stage forging technology penetration reached 42% in advanced production plants, improving dimensional precision and lowering defect rates by 18%. Aerospace manufacturers increased titanium forging procurement by 21% for turbine discs, landing gear systems, and engine shafts. Industrial robotics integration expanded by 25% in automated die-casting facilities. Sand casting retained 34% process share because of its flexibility in producing heavy industrial machinery components. Closed-die forging continued dominating automotive applications with 44% share due to crankshaft, gear, and axle production. Energy-efficient induction furnaces were adopted by 31% of foundries during 2025 to reduce electricity consumption. Recycled metal usage exceeded 38% in aluminum casting operations globally. Additive manufacturing-assisted mold production expanded by 16% in precision casting applications. Asia-Pacific continued leading global production with 46% share, supported by strong industrial expansion in China and India. The demand for forged wind turbine shafts and nuclear energy components also increased by 14% during 2025.

Casting and Forging Market Dynamics

DRIVER

"Rising demand for automotive and aerospace components"

The automotive and aerospace sectors remain the primary growth engines for the casting and forging market. Automotive applications accounted for 35% of global casting demand and 40% of forging demand during 2024. Electric vehicle production increased demand for lightweight aluminum castings by 18%, especially for battery housings, transmission cases, and structural frames. Aerospace manufacturers increased procurement of forged titanium components by 21% due to rising aircraft production and defense modernization programs. Commercial vehicle manufacturing in Asia-Pacific increased by 12% during 2025, supporting crankshaft and axle forging demand. Aerospace forged parts maintained high usage because forged alloys improve fatigue strength by 26% compared to conventional machining methods. Industrial automation in forging facilities reached 42%, improving productivity and reducing defect rates by 14%. Renewable energy projects also accelerated demand for forged turbine shafts and cast wind energy housings, particularly in Europe and China.

RESTRAINT

"High energy consumption and raw material volatility"

Casting and forging operations remain highly energy-intensive, creating operational pressure on manufacturers. Approximately 36% of forging facilities reported rising electricity and furnace operating costs during 2025. Steel and alloy price volatility affected 33% of foundries globally, increasing procurement uncertainty for automotive and industrial contracts. Open-die forging operations continued facing material wastage levels near 32%, particularly in large industrial components. Environmental regulations also increased compliance costs for foundries using coal-fired furnaces and traditional melting systems. Carbon emission standards impacted 28% of metal processing plants in Europe and North America. Labor shortages affected 19% of forging operations due to reduced skilled workforce availability. Equipment modernization costs increased significantly because robotic die-casting systems require advanced sensors, automated controls, and high-capacity hydraulic presses. Smaller foundries faced operational difficulties as energy-efficient furnace upgrades required major capital investment. These challenges slowed expansion plans among medium-scale manufacturers during 2024 and 2025.

OPPORTUNITY

"Expansion of electric vehicles and renewable energy infrastructure"

Electric vehicle production is creating substantial opportunities for casting and forging manufacturers. Aluminum structural castings increased by 35% in EV production because lightweight designs improve battery efficiency and vehicle range. Giga-casting systems reduced assembly complexity by 70% in selected vehicle platforms, increasing demand for large die-casting machines. EV battery enclosures, motor housings, and suspension systems are increasingly produced through precision casting and closed-die forging processes. Renewable energy infrastructure is also generating opportunities for heavy forged components. Wind turbine installations increased forged shaft demand by 14% during 2025. Solar power infrastructure projects expanded industrial casting requirements for mounting structures and heavy-duty machinery. Nuclear energy projects increased demand for forged pressure vessels and turbine discs. Asia-Pacific infrastructure expansion supported industrial machinery casting growth by 16%. Aerospace demand for lightweight titanium forgings also expanded due to rising aircraft fleet modernization programs across the United States, India, and Europe.

CHALLENGE

"Maintaining quality consistency in high-volume production"

Quality consistency remains a major challenge in casting and forging operations because automotive and aerospace manufacturers require precise dimensional tolerances and material integrity. Nearly 24% of foundries reported difficulties maintaining defect-free production during high-volume manufacturing cycles. Porosity, shrinkage, and surface cracking remain common issues in large aluminum castings and steel forgings. Aerospace applications require defect rates below 2% for turbine and structural components, increasing inspection costs and quality assurance requirements. Non-destructive testing adoption increased by 29% during 2025, especially in aerospace and defense production lines. Forging plants also face challenges related to die wear, which affects 17% of precision operations annually. Maintaining consistent grain flow and metallurgical properties is essential for high-strength applications such as aircraft landing gear and wind turbine shafts. Manufacturers are increasingly investing in AI-driven inspection systems and automated monitoring tools to reduce rejection rates and improve production reliability across global supply chains.

Casting and Forging Market Segmentation

The casting and forging market is segmented by type and application based on manufacturing processes and end-user industries. Sand casting maintained 34% share because of strong demand from industrial machinery and heavy equipment manufacturing. Closed-die forging represented 44% of forging output due to automotive component production. Die casting gained popularity in electric vehicle manufacturing because aluminum applications increased by 35%. Automotive applications accounted for 35% of total market demand, followed by aerospace at 25% and industrial machinery at 18%. Energy applications expanded steadily due to wind turbine, nuclear equipment, and oil and gas infrastructure projects requiring high-strength forged and cast components.

By Type

• Closed Die Forging: Closed-die forging represented 44% of global forging production during 2025, making it the leading forging process. Automotive manufacturers heavily rely on this process for crankshafts, gears, connecting rods, and wheel hubs. The process improves grain structure strength by 26% compared to machined components. Automated forging presses are now installed in 42% of modern plants to improve productivity and dimensional accuracy. India, Germany, China, and Japan remain major producers of closed-die forged parts. Aerospace applications also increased demand for titanium and alloy steel forgings. Heavy commercial vehicle production contributed 31% of closed-die forging consumption globally, while industrial machinery applications represented 18% of total demand.
• Open Die Forging: Open-die forging accounted for 32% of global forging output during 2025. This process is widely used for large industrial shafts, pressure vessels, turbine rotors, and oil and gas equipment. Energy sector applications represented 27% of open-die forging demand because large forged components provide superior strength and durability. Europe and North America remained major production hubs for open-die forgings used in nuclear and wind energy systems. Material wastage in open-die operations remained near 32%, creating efficiency concerns among manufacturers. Heavy steel forgings weighing above 20 tons are commonly produced through this process. Industrial machinery applications contributed 24% of total open-die demand during 2025.
• Sand Casting: Sand casting held 34% of global process demand due to its flexibility and cost efficiency in manufacturing heavy components. Industrial machinery and automotive sectors together represented 49% of sand casting consumption. Cast iron and steel remained the dominant materials in this segment, accounting for 40% of total usage. Asia-Pacific contributed 46% of global sand casting production because of strong industrial manufacturing activity. The process is widely used for engine blocks, pump housings, valves, and agricultural machinery components. Automation in mold handling systems increased by 22% during 2025. Recycled metal usage in sand casting operations exceeded 38%, supporting sustainability initiatives across foundries.
• Die Casting: Die casting gained strong momentum due to rising electric vehicle production and lightweight component demand. Aluminum die casting represented 35% of total casting material usage globally during 2025. Automotive applications contributed 58% of die-casting demand, particularly for transmission cases, battery enclosures, and structural components. Robotic automation adoption increased by 25% in die-casting facilities to improve speed and reduce defects. Structural giga-casting systems reduced component assembly requirements by 70% in selected EV manufacturing platforms. Zinc and magnesium die-casting applications also expanded in consumer electronics and industrial equipment production. Asia-Pacific remained the leading die-casting region due to strong automotive manufacturing capacity in China, Japan, and India.

By Application

• Automotive: Automotive applications accounted for 35% of total casting demand and 40% of forging demand globally during 2025. Engine blocks, crankshafts, transmission housings, and suspension systems remained the largest application areas. Electric vehicle production increased aluminum casting demand by 18%, particularly for lightweight battery enclosures and structural frames. Closed-die forging dominated automotive applications with 44% share because forged components provide higher fatigue strength and durability. Asia-Pacific produced more than 50% of automotive cast and forged parts globally. Lightweight component adoption reduced vehicle weight by 12% in selected EV platforms. Automated production systems were integrated into 42% of automotive forging facilities during 2025.
• Aerospace: Aerospace applications represented 25% of forged component demand globally during 2025. Titanium alloy forgings accounted for 21% of aerospace material consumption because of high strength-to-weight performance. Aircraft engine manufacturers increased procurement of forged turbine discs and landing gear systems by 16%. Aerospace castings are widely used in turbine housings, structural brackets, and engine casings. North America remained the largest aerospace forging market with 27% share of U.S. forging demand linked to aerospace manufacturing. Non-destructive testing adoption increased by 29% in aerospace production facilities to ensure quality compliance. Defense modernization programs in the United States and Europe supported rising procurement of high-performance forged components.
• Industrial Machinery: Industrial machinery applications accounted for 18% of total forged component demand during 2025. Heavy equipment manufacturers increasingly used cast steel and forged alloy components for durability and load-bearing capacity. Sand casting remained widely used for pump housings, compressors, valves, and construction equipment parts. Asia-Pacific industrialization supported machinery casting demand growth of 16%. Automated manufacturing systems reduced defect rates by 14% in modern machinery component production. Open-die forgings are commonly used for industrial rollers, shafts, and heavy press equipment. Europe and China remained major suppliers of industrial machinery castings for export markets. Recycled metal usage in industrial casting operations exceeded 38% globally during 2025.
• Energy: Energy applications represented 14% of total casting and forging demand during 2025. Wind turbine installations increased forged shaft demand by 14%, particularly in Europe and China. Nuclear energy projects required heavy forged pressure vessels and turbine components weighing above 20 tons. Oil and gas industries continued using open-die forged valves, flanges, and drilling equipment because of high-pressure operating conditions. Renewable energy infrastructure projects increased steel casting demand for turbine housings and support structures. Middle East energy investments supported rising demand for corrosion-resistant forged components. Industrial foundries supplying the energy sector increased automation adoption by 19% during 2025 to improve productivity and precision in large component manufacturing.

Casting and Forging Market Regional Outlook

• North America

North America accounted for 22% of global casting and forging production during 2025. The United States remained the dominant regional producer with forging production reaching 396,000 tons. Automotive applications represented 40% of regional demand, while aerospace contributed 27%. Michigan, Ohio, and Illinois generated 48% of U.S. forging output because of strong automotive manufacturing clusters. Closed-die forging accounted for 46% of North American production due to heavy vehicle and aerospace applications. The aerospace sector remained a major consumer of titanium and nickel-based forgings, which represented 31% of aerospace alloy applications. Defense modernization programs increased procurement of forged aircraft structures and engine components. Industrial robotics adoption increased by 24% in regional die-casting facilities during 2025. Energy infrastructure projects in the United States and Canada also expanded demand for forged valves, flanges, and turbine components. Aluminum die casting gained momentum because electric vehicle production increased significantly across the region. Advanced inspection systems were integrated into 29% of aerospace forging plants to maintain strict quality standards.

• Europe

Europe represented 28% of global casting and forging manufacturing activity during 2025. Germany remained the largest regional producer because of its strong automotive and industrial machinery sectors. Automotive applications contributed 37% of European demand, followed by aerospace at 24%. The region maintained strong expertise in precision forging, turbine casting, and industrial machinery components. Energy-efficient induction furnaces were installed in 33% of European foundries to comply with carbon emission regulations. Wind energy projects increased demand for forged turbine shafts and heavy cast housings by 14%. France and the United Kingdom expanded aerospace forging production for aircraft engine programs during 2025. Aluminum casting demand increased due to electric vehicle manufacturing expansion across Germany and Scandinavia. Robotic automation adoption reached 41% in advanced European forging plants. Europe also remained a leading exporter of high-strength steel forgings used in rail, marine, and defense applications. Recycled aluminum usage exceeded 40% in regional die-casting operations.

• Asia-Pacific

Asia-Pacific dominated the casting and forging market with 46% of global production during 2025. China remained the largest manufacturing hub, followed by India, Japan, and South Korea. Automotive production represented 42% of regional casting and forging demand because Asia-Pacific manufactures more than half of global vehicles. Sand casting remained highly popular due to large-scale industrial machinery and infrastructure development projects. India increased forging output to nearly 2 million metric tons in 2024, while China continued leading steel casting production. Industrial automation adoption increased by 38% across regional forging facilities. Aluminum die casting expanded rapidly because electric vehicle manufacturing accelerated in China and India. Aerospace production in Japan and South Korea also increased demand for titanium and alloy steel forgings. Renewable energy infrastructure projects across China supported rising demand for wind turbine shafts and heavy cast structures. Asia-Pacific also maintained cost advantages in labor and raw material processing, strengthening export competitiveness in automotive and industrial applications.

• Middle East & Africa

Middle East & Africa accounted for 9% of global casting and forging demand during 2025. Oil and gas infrastructure remained the largest application sector, representing 44% of regional forged component consumption. Open-die forged valves, flanges, drilling tools, and pressure vessels experienced strong demand due to energy sector expansion projects. Saudi Arabia and the United Arab Emirates increased investment in industrial manufacturing and heavy engineering facilities. Steel casting demand increased by 11% in regional energy infrastructure projects during 2025. South Africa remained a major producer of mining equipment castings and industrial machinery components. Renewable energy investments also supported rising demand for forged wind turbine shafts and structural castings. Industrial automation adoption reached 19% in regional foundries, improving productivity and quality consistency. Infrastructure projects in transportation and water treatment sectors expanded demand for cast iron pipes, pumps, and valve systems. Regional governments continued investing in local manufacturing capabilities to reduce dependence on imported industrial components.

List of Top Casting and Forging Companies

• Nippon Steel Corporation (Japan)
• Thyssenkrupp AG (Germany)
• Bharat Forge (India)
• Alcoa Corporation (USA)
• Precision Castparts Corp (USA)
• Kobe Steel (Japan)
• Arconic (USA)
• Schuler Group (Germany)
• Ellwood Group (USA)
• Scot Forge (USA)

Top 2 Companies with Highest Market Share

• Nippon Steel Corporation held approximately 19% share in advanced forged steel applications, supported by automotive, rail, and heavy machinery production capacity across Asia and Europe.

• Precision Castparts Corp maintained nearly 15% share in aerospace precision casting and forging applications, supplying turbine blades, aircraft structures, and defense engine components globally.

Investment Analysis and Opportunities

Investment activity in the casting and forging market increased significantly during 2024 and 2025 due to electric vehicle manufacturing, aerospace expansion, and renewable energy projects. Automation investments represented 42% of modernization spending in forging plants. Aluminum die-casting facilities expanded production capacity because lightweight vehicle demand increased by 18%. Asia-Pacific attracted major investments in industrial foundries and automotive forging facilities, particularly in China and India. Aerospace manufacturers increased procurement of titanium and nickel-based alloy forgings by 21%, encouraging capacity expansion in North America and Europe. Renewable energy infrastructure projects generated opportunities for forged wind turbine shafts, heavy steel castings, and turbine housings. Investment in robotic quality inspection systems increased by 29% among aerospace suppliers. Recycled aluminum processing facilities also expanded because secondary aluminum usage exceeded 38% globally. Industrial machinery manufacturing in emerging economies created additional opportunities for sand casting and open-die forging suppliers. Heavy equipment and mining machinery projects increased demand for cast iron and alloy steel components. Governments across Asia and the Middle East continued supporting domestic manufacturing initiatives, improving opportunities for regional foundries and forging companies.

New Product Development

Manufacturers are focusing on lightweight alloys, digital manufacturing systems, and precision-engineered components to improve performance and production efficiency. Aluminum giga-casting technology became a major innovation during 2025, reducing vehicle assembly complexity by 70% in selected electric vehicle platforms. High-strength titanium forgings were increasingly developed for aerospace turbine and landing gear systems. Advanced die materials improved tool life by 18% in high-volume forging operations. Additive manufacturing-assisted mold production expanded by 16%, improving casting precision and reducing prototype development time. Smart forging presses integrated with AI-driven monitoring systems improved defect detection accuracy by 24%. Aerospace suppliers introduced nickel-based superalloy castings with improved heat resistance for turbine applications. Energy-efficient induction furnaces were adopted by 31% of foundries to reduce electricity consumption and emissions. Industrial robotics penetration increased by 25% in die-casting facilities. Lightweight magnesium alloy castings also gained popularity in automotive and electronics applications because they reduce component weight by nearly 30% compared to traditional steel parts. Manufacturers continued investing in automated inspection systems to improve dimensional consistency and reduce rejection rates in precision applications.

Five Recent Developments (2023-2025)

• March 2023: Bharat Forge expanded aluminum forging capacity in India by 18% to support electric vehicle and commercial vehicle component production.
• September 2023: Precision Castparts increased aerospace titanium forging output by 14% for aircraft engine and defense applications in North America.
• February 2024: Thyssenkrupp integrated robotic automation into 41% of selected forging operations to improve productivity and reduce defect rates.
• July 2024: Nippon Steel introduced advanced high-strength steel forgings with 22% higher fatigue resistance for automotive and rail applications.
• January 2025: Alcoa expanded recycled aluminum casting operations, increasing secondary aluminum usage by 35% across automotive die-casting facilities.

Report Coverage of Casting and Forging Market

The casting and forging market report covers production technologies, process types, applications, regional manufacturing trends, competitive analysis, and industrial demand patterns across global markets. The report evaluates closed-die forging, open-die forging, sand casting, and die-casting processes with detailed assessment of automotive, aerospace, industrial machinery, and energy applications. Automotive demand accounted for 35% of global consumption, while aerospace represented 25% of forged component usage during 2025. The report analyzes regional production shares, including Asia-Pacific at 46%, Europe at 28%, North America at 22%, and Middle East & Africa at 9%. It includes analysis of automation trends, recycled metal adoption, energy-efficient furnace deployment, and robotic manufacturing integration. Aluminum represented 35% of casting material usage globally, while steel castings accounted for 40% of total material consumption. The study also covers supply chain developments, quality control technologies, alloy innovations, and investment activity across industrial manufacturing sectors. It evaluates production volumes, export activity, infrastructure expansion, and renewable energy demand influencing forged and cast component manufacturing. Aerospace titanium forgings, EV structural castings, and industrial machinery components remain major focus areas within the global market landscape.