Foundry Equipment Market Size, Share & Trends Analysis Report By Product (Die Casting Machine, Centrifugal Casting Machine, Induction Furnace, Moulding Machine, Coremaking Machine, and Shot Blasting Machine), By Applications (Automotive, Aerospace, Machinery, Others), By End Use, By Region, and Segment Forecasts - 2035

Foundry Equipment Market Overview

foundry equipment market size was valued at USD 5567.75 million in 2025 and is poised to grow from USD 5757.05 million in 2026 to USD 6364.46 million by 2035, growing at a CAGR of 3.4% during the forecast period (2026-2035).

The Foundry Equipment Market is moving through a modernization cycle shaped by automotive lightweighting, electric-vehicle production, industrial automation, energy-efficient metal melting, digitally controlled molding, robotic material handling, and tighter casting-quality requirements. Die Casting Machine equipment is estimated to account for approximately 29% of current demand, followed by Induction Furnace at 21%, Moulding Machine at 18%, Shot Blasting Machine at 13%, Coremaking Machine at 11%, and Centrifugal Casting Machine at 8%. Automotive applications represent approximately 46% of market demand because cast components remain fundamental to vehicle structures, electric drivetrains, powertrain housings, suspension systems, wheels, braking components, thermal-management systems, and battery-related assemblies. Worldwide motor vehicle production reached approximately 96.4 million units during 2025, increasing 3.9% from 2024 and reinforcing utilization of foundry assets. Large structural aluminum casting is particularly important as electric vehicles increase their share of automotive manufacturing. Modern high-pressure Die Casting Machine platforms now reach approximately 92,000 kN of locking force, enabling production of integrated structures that can replace dozens of separately manufactured components.

The United States remains an important Foundry Equipment Market because of its automotive, Aerospace, defense, heavy Machinery, agricultural machinery, construction equipment, energy, and industrial manufacturing base. North America is estimated to account for approximately 20% of global equipment demand, with the U.S. contributing more than 80% of regional consumption. Automotive and Machinery collectively generate approximately 74% of regional demand because both sectors require high volumes of aluminum, iron, steel, and other cast components. U.S. foundries are increasingly investing in Induction Furnace systems as electric melting offers precise temperature control, flexible batch production, improved process repeatability, and reduced direct combustion at the melting stage. Structural casting is also gaining momentum as vehicle manufacturers consolidate assemblies through high-pressure aluminum casting. A single large structural casting can replace up to approximately 100 individual parts in selected automotive applications, reducing welding, joining, logistics, and assembly complexity while increasing requirements for large Die Casting Machine cells, automated extraction, trimming, vacuum control, and process monitoring.

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Key Findings

• Leading Product Type: Die Casting Machine is projected to lead with approximately 29% market share as automotive lightweighting, aluminum substitution, and large structural casting expand high-pressure equipment demand.
• Leading Application: Automotive is expected to account for approximately 46% market share, supported by global vehicle production reaching about 96.4 million units during 2025 and continued casting-intensive manufacturing.
• Leading Region: Asia-Pacific is estimated to hold approximately 48% market share because China, India, Japan, and Southeast Asia concentrate automotive production, machinery manufacturing, foundries, and metal-processing capacity.
• Fastest Growing Region: Asia-Pacific is projected to expand at approximately 4.8% annually as electric mobility, industrial manufacturing, infrastructure investment, automation, and domestic casting capacity continue increasing.
• Technology Trend: Megacasting is reshaping Die Casting Machine design, with advanced commercial platforms reaching approximately 92,000 kN locking force and handling more than 200 kg of liquid aluminum per shot.
• Market Driver: Vehicle manufacturing remains the strongest demand catalyst, with global automotive sales reaching approximately 99.8 million units in 2025 and maintaining large requirements for cast metal components.
• Competitive Landscape: Large-format casting competition is intensifying, with more than 900 units of one major two-platen Die Casting Machine platform already operating globally across automotive and structural applications.
• Future Outlook: Electric mobility will reshape equipment demand through 2035, as electric cars represented approximately 25% of worldwide new-car sales in 2025 and increasingly use large aluminum cast structures.

Latest Trends

Megacasting has become one of the most important technology trends affecting the Foundry Equipment Market. Automotive manufacturers increasingly seek to replace multiple stamped, welded, machined, and separately cast components with single large aluminum structures. High-pressure Die Casting Machine systems with locking forces reaching approximately 92,000 kN can inject more than 200 kg of molten aluminum into a die within milliseconds, allowing foundries to manufacture significantly larger structural components than conventional casting equipment. In selected vehicle architectures, one integrated casting can replace up to approximately 100 individual components, reducing joining operations and simplifying vehicle assembly. This shift creates demand well beyond the press itself because megacasting cells require advanced holding furnaces, metal delivery, vacuum equipment, die spraying, extraction robots, trimming equipment, cooling systems, inspection stations, and automated handling. Electric vehicles strengthen the trend because global electric-car sales exceeded 20 million units during 2025 and represented about 1 in every 4 new cars sold. Large structural aluminum castings help vehicle producers reduce part counts and support lightweight design while creating opportunities for foundry equipment suppliers across complete integrated production cells.

The second major trend is digital foundry automation. Equipment manufacturers are integrating sensors, programmable logic controls, edge computing, machine monitoring, automatic recipe management, remote diagnostics, and predictive maintenance into Die Casting Machine, Induction Furnace, Moulding Machine, Coremaking Machine, and Shot Blasting Machine systems. A high-volume casting line operating one 90-second cycle can exceed 300 cycles during an 8-hour shift, producing thousands of process measurements related to temperature, pressure, velocity, vibration, energy use, mold condition, and cycle time. Digital analysis allows foundries to identify abnormal operating patterns before they create large volumes of scrap. Smart Induction Furnace systems can monitor electrical input, refractory condition, melt temperature, and energy consumption, while automated molding lines measure sand characteristics and mold consistency. Equipment buyers increasingly evaluate data availability alongside mechanical productivity because Automotive and Aerospace customers demand traceability across increasingly large production volumes. Predictive maintenance also becomes valuable when unexpected downtime on one automated line can interrupt more than 1,000 casting cycles within a few production days.

Market Dynamics

Driver

""Automotive lightweighting and electrification are accelerating foundry modernization.""

Automotive manufacturing is the strongest growth driver because the industry combines very high casting volumes with increasingly demanding material and dimensional requirements. Global vehicle production reached approximately 96.4 million units in 2025, while vehicle sales approached 99.8 million units. Cast parts remain widely used across suspension systems, structural sections, housings, wheels, steering components, braking systems, electric motors, thermal-management components, and conventional powertrains. Automotive consequently represents an estimated 46% of Foundry Equipment Market demand. High-volume vehicle programs can require hundreds of thousands of identical components annually, supporting investment in automated Die Casting Machine, Moulding Machine, Coremaking Machine, Shot Blasting Machine, and Induction Furnace systems. Equipment capable of achieving stable cycle times and digital traceability is particularly important because a small defect percentage can translate into thousands of rejected parts across large production runs.

Electric vehicles reinforce modernization rather than eliminating casting demand. Global electric-car sales increased by more than 20% during 2025 to approximately 21 million units, representing 25% of new-car sales. Electric platforms reduce requirements for several internal-combustion engine castings but increase demand for motor housings, battery-related structures, inverter housings, structural aluminum components, suspension parts, and thermal-management systems. High-pressure Die Casting Machine technology is therefore becoming increasingly important. Equipment capable of consolidating up to approximately 100 components into a single structure can reduce assembly complexity while supporting lightweight designs. Foundries serving vehicle manufacturers must consequently invest in higher locking force, improved vacuum control, advanced die-temperature management, robotic extraction, and automated inspection.

Restraint

""High capital requirements continue to restrict modernization among smaller foundries.""

Capital intensity remains the largest restraint because modern foundry projects involve considerably more expenditure than the purchase of one primary machine. A large Die Casting Machine installation requires melting and holding equipment, metal transfer, lubrication, vacuum systems, extraction robots, trimming presses, cooling stations, safety systems, inspection equipment, and facility modifications. Large megacasting machines can reach approximately 8 meters in height and occupy nearly 100 square meters of floor space, creating major installation requirements. Smaller foundries operating only 2 or 3 production lines can struggle to justify this investment unless long-term customer contracts provide sufficient utilization. Financing becomes particularly difficult when equipment replacement cycles exceed 15 years and customers are uncertain about future component designs.

Modern Induction Furnace installations can also require significant electrical infrastructure, transformer capacity, cooling systems, refractory-management expertise, and operator training. Electricity costs represent a substantial component of operating expense, meaning foundries must carefully match furnace size to production requirements. A facility using a furnace that is 20% larger than necessary can carry avoidable holding and infrastructure costs when production volumes decline. Environmental compliance can create additional capital requirements for dust collection, ventilation, sand reclamation, and waste treatment. These factors moderate replacement rates and help explain why the overall Foundry Equipment Market is projected to expand at approximately 3.4% rather than at the higher rates seen in some downstream automotive technologies.

Opportunity

""Connected foundries create strong demand for intelligent automation and predictive maintenance.""

The transition toward smart foundries provides a major opportunity because customers increasingly want equipment capable of collecting, analyzing, and acting on production data. A Die Casting Machine performing 100,000 cycles annually generates extensive information on injection velocity, hydraulic pressure, vacuum, metal temperature, die temperature, cooling, lubrication, and cycle time. Digital systems can compare each cycle against predetermined process windows and automatically identify deviations. This can reduce dependence on end-of-line inspection by helping operators intervene before defects become widespread. Equipment companies that integrate Internet of Things capability, predictive maintenance, digital twins, remote service, and automated recipe management can therefore increase the value of each installed system.

Robotic handling presents another opportunity because foundries operate in environments involving heat, dust, noise, vibration, heavy parts, and repetitive motion. Shot Blasting Machine operations, core handling, metal transfer, casting extraction, trimming, and inspection can increasingly be automated. A robotic handling cell replacing 2 manual positions across 3 shifts can reduce direct exposure to demanding tasks while improving cycle consistency. Moulding Machine and Coremaking Machine equipment can also integrate automatic pattern changes and robotic assembly, allowing foundries to handle more product variants. Labor shortages increase the value of this flexibility, especially in mature manufacturing regions where experienced foundry workers are retiring faster than new technical workers enter the industry.

Challenge

""Foundries must combine higher automation with flexibility, energy efficiency, and process stability.""

Production flexibility is a major challenge because not every foundry operates automotive-scale volumes. Machinery and Aerospace customers often require smaller production batches containing more product variants. A Moulding Machine optimized for one casting at extremely high output can become inefficient if a foundry needs to produce 20 different casting designs within the same week. Equipment developers therefore need faster tooling changes, automated recipe storage, modular handling, and flexible robotic programming. Digital systems capable of storing more than 100 process recipes can significantly reduce setup requirements when customers frequently change part designs. The challenge is achieving this flexibility without sacrificing dimensional accuracy or increasing downtime.

Energy efficiency represents another challenge because metal melting is one of the most energy-intensive foundry operations. Induction Furnace equipment accounts for approximately 21% of market demand, and operating efficiency depends on charge density, refractory condition, power control, holding time, and melt scheduling. A furnace experiencing a 10% reduction in usable volume because of buildup can affect productivity and specific energy consumption. Foundries need equipment capable of monitoring operating conditions continuously while giving operators clear maintenance guidance. Equipment manufacturers must therefore combine mechanical engineering, electrical technology, software, sensors, and service expertise within one solution.

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Segmentation Analysis

By Types

Die Casting Machine: Die Casting Machine equipment leads with an estimated 29% market share because high-pressure casting is increasingly used for aluminum and other nonferrous components across Automotive, Machinery, and selected Aerospace requirements. Vehicle lightweighting has accelerated investment in larger structural castings, with advanced machines providing locking forces of approximately 10,500 kN to 92,000 kN. Large platforms can inject more than 200 kg of molten aluminum during one shot and manufacture structural parts that previously required dozens of components. These capabilities create demand for complete automated cells rather than standalone presses.

Die Casting Machine development increasingly centers on digital control. Modern cells monitor injection velocity, pressure, vacuum, die temperature, metal condition, spray parameters, and cycle performance. A production line operating one 90-second cycle can exceed 20 cycles per hour and generate thousands of data points per shift. Automotive suppliers use these measurements to improve repeatability and traceability. Die Casting Machine demand is expected to remain the largest product segment through 2035 as electric vehicles and lightweight industrial components increase aluminum casting requirements.

Centrifugal Casting Machine: Centrifugal Casting Machine equipment represents approximately 8% market share and serves specialized applications requiring rotationally symmetric castings. The process uses centrifugal force to distribute molten metal against the mold surface and is commonly suited to pipes, rings, liners, sleeves, and cylindrical industrial components. Machines can operate at several hundred or several thousand revolutions per minute depending on casting diameter and material.

The category remains smaller than other supplied equipment types because its application range is more specialized. However, Machinery customers continue to require centrifugally cast wear components, rotating-equipment parts, and cylindrical structures with controlled metallurgical characteristics. Plants producing 10 or more cylindrical casting sizes increasingly require programmable speed control and automated pouring to maintain consistency. Centrifugal Casting Machine is expected to retain approximately 8% market share during the forecast period.

Induction Furnace: Induction Furnace equipment accounts for approximately 21% market share and is gaining importance as foundries seek flexible and electrically controlled melting. The technology allows rapid heating, good bath circulation, precise temperature management, and production scheduling based on actual metal requirements. Digital control systems can measure energy consumption per tonne and identify abnormal operating conditions before they materially affect productivity.

Induction Furnace systems also support decarbonization strategies where electricity becomes progressively cleaner. Modern facilities increasingly use automated charging, temperature measurement, melt tracking, and refractory monitoring. A furnace melting 5 tonnes per batch can process tens of thousands of tonnes annually when operated across multiple shifts. Equipment suppliers that reduce specific electricity consumption by even 5% can therefore generate meaningful operating savings. The segment could approach approximately 24% market share by 2035 as electrified melting replaces aging combustion-based systems.

Moulding Machine: Moulding Machine equipment represents approximately 18% market share and remains essential to automated sand casting. High-productivity molding systems can produce one mold in less than 1 minute under optimized conditions, supporting large Automotive and Machinery production programs. Automated sand handling, compaction control, pattern changes, mold transport, and process monitoring improve dimensional repeatability.

Modern Moulding Machine platforms increasingly connect production data with quality inspection. If sand moisture, density, or compaction changes by only a few percentage points, casting quality can deteriorate across hundreds of molds before operators recognize a problem. Sensor-driven systems allow earlier intervention and reduce scrap risk. Demand is expected to remain near approximately 18% because sand casting continues to provide an economical manufacturing route for large volumes of iron, steel, and nonferrous components.

Coremaking Machine: Coremaking Machine equipment holds approximately 11% market share and is required for castings containing internal passages, cavities, hollow sections, and complex geometry. Automotive motor housings, conventional engine components, pumps, valves, compressors, and Machinery castings may require several individual cores within one mold. Equipment increasingly uses controlled binder dosing, automated sand preparation, rapid curing, and robotic core handling.

Complex castings can require 5 or more cores positioned precisely before pouring. Misalignment of only several millimeters can produce unacceptable wall-thickness variation. Vision systems and robotic positioning are therefore becoming increasingly important. Coremaking Machine manufacturers are also developing lower-emission binder processing and improved curing efficiency. The segment is expected to maintain approximately 11% market share through 2035 as component geometries become increasingly complex.

Shot Blasting Machine: Shot Blasting Machine equipment represents approximately 13% market share and performs critical post-casting functions such as sand removal, descaling, surface cleaning, finishing, and preparation for coating or inspection. Automated machines can process hundreds or thousands of castings during one production day depending on component size and equipment configuration.

New systems increasingly use programmable media flow, turbine monitoring, automatic loading, robotic handling, and digital wear tracking. Improving blast-wheel efficiency by approximately 10% can reduce electricity consumption while maintaining required surface-cleaning performance. Automotive and Machinery applications provide the strongest demand because both sectors require high volumes of consistent surface finishing. Shot Blasting Machine demand is expected to remain around approximately 13% through the forecast period.

By Applications

Automotive: Automotive leads with approximately 46% market share because cast components are used extensively across vehicle structures, propulsion, suspension, braking, thermal management, steering, and electrical systems. Worldwide vehicle production reached approximately 96.4 million units in 2025, sustaining large casting volumes. Electric-car sales exceeded 20 million units during the same year, creating additional requirements for aluminum battery structures, motor housings, inverter components, and large body castings.

High production volumes make automation economically attractive. A casting line producing one component every 60 seconds can theoretically exceed 500 castings during a 10-hour operating window before maintenance and changeovers. Equipment downtime therefore has direct consequences for vehicle assembly. Automotive is expected to remain the largest application through 2035 even as component requirements shift from conventional engine castings toward electric-drivetrain and structural components.

Aerospace: Aerospace represents an estimated 12% market share and requires specialized equipment capable of supporting stringent quality, alloy control, dimensional accuracy, and production traceability. Aerospace casting volumes are lower than Automotive, but the value and criticality of each part are often substantially higher. Turbine-related components, housings, brackets, and structural castings may undergo several inspection stages.

Selected safety-critical Aerospace castings can face inspection rates approaching 100%, increasing the value of stable foundry processes and digital records. Equipment capable of storing complete production parameters for each batch helps manufacturers demonstrate repeatability. Aerospace is expected to increase toward approximately 13% market share by 2035 as aircraft manufacturing, defense programs, and high-performance propulsion investment expand.

Machinery: Machinery accounts for approximately 28% market share and covers construction equipment, mining systems, agricultural machinery, pumps, compressors, industrial drives, machine tools, energy equipment, and general manufacturing. Cast components can range from less than 1 kg to structures weighing several tonnes, making flexibility a central equipment requirement.

All 6 supplied equipment categories participate meaningfully in Machinery applications. Induction Furnace and Moulding Machine equipment support large iron and steel casting programs, while Centrifugal Casting Machine systems address cylindrical parts and Shot Blasting Machine equipment supports finishing. Machinery is expected to retain approximately 28% market share as infrastructure development and industrial replacement demand sustain casting volumes.

Others: Others represent approximately 14% market share and include foundry requirements outside Automotive, Aerospace, and Machinery. Production environments range from small specialized casting shops to highly automated facilities manufacturing thousands of tonnes annually. This diversity creates demand across all supplied equipment types.

Flexible automation is particularly important because these operations may process more than 10 different component families. Modular equipment and programmable controls can help foundries switch between orders without long mechanical changeovers. Others is expected to maintain approximately 14% market share through 2035 as broad industrial casting requirements continue.

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Regional Outlook

North America

North America accounts for approximately 20% market share, with the United States contributing more than 80% of regional equipment demand. Inductotherm and Sinto provide direct supplied-company representation from the U.S. Automotive production, Aerospace, defense, construction equipment, agricultural machinery, energy systems, and reshoring initiatives support foundry investment.

Large structural die casting is emerging as one of the most important investment areas. Automated megacasting cells require multiple peripheral systems in addition to the primary Die Casting Machine, increasing the size of each equipment project. North American foundries are also investing in Induction Furnace modernization and robotic Shot Blasting Machine operations. Regional demand is expected to expand at approximately 3.5% annually through 2035.

Europe

Europe is estimated to hold approximately 22% market share and remains a major center for automotive engineering, Aerospace, premium Machinery, specialty casting, and advanced foundry automation. Buhler and Norican provide strong supplied-company representation from Switzerland and Denmark. European manufacturers increasingly prioritize energy efficiency, electrified melting, automation, lower scrap rates, and traceable production.

Electric cars represented approximately 28% of European new-car sales during 2025, strengthening demand for aluminum structural casting and electric-drivetrain components. European foundries are simultaneously upgrading Induction Furnace systems to support lower-emission manufacturing. The region is expected to retain approximately one-fifth of global market demand through 2035 because high equipment sophistication offsets comparatively slower growth in total casting volume.

Asia-Pacific

Asia-Pacific leads the Foundry Equipment Market with an estimated 48% market share because the region concentrates automotive production, industrial Machinery, infrastructure manufacturing, metalworking, and large-scale foundry capacity. China, India, Japan, South Korea, and Southeast Asia collectively operate extensive supply chains for ferrous and nonferrous castings. Toshiba provides direct supplied-company representation from Japan, while global equipment manufacturers increasingly maintain production and service capabilities close to Asian customers.

Electric-vehicle production is a particularly strong regional catalyst. China accounted for more than half of global electric-car sales during 2025, and electric vehicles represented approximately 55% of new-car sales within the country. This shift strengthens demand for Die Casting Machine systems capable of producing large aluminum structures and electric-drivetrain components. Asia-Pacific is projected to grow at approximately 4.8% annually and retain more than 45% market share throughout the forecast period.

Latin America

Latin America represents approximately 6% market share, supported by automotive, mining, Machinery, agricultural equipment, construction, and industrial manufacturing. Brazil and Mexico account for the largest regional foundry clusters and participate extensively in international automotive and industrial supply chains.

Equipment modernization increasingly focuses on automation and productivity because regional foundries compete with facilities in Asia, Europe, and North America. Reducing scrap from 5% to 3% can produce meaningful savings in a plant processing more than 10,000 tonnes annually. Latin America is expected to grow at approximately 3.7% annually as nearshoring, infrastructure investment, and industrial manufacturing create replacement demand.

Middle East & Africa

Middle East & Africa account for approximately 4% market share, with demand supported by energy, mining, infrastructure, pumps, valves, construction Machinery, and general industrial equipment. Foundry investment remains concentrated in countries with established manufacturing bases and major infrastructure programs.

Modular Induction Furnace systems provide a particular opportunity because smaller foundries can match melting capacity more closely with actual orders. A facility producing fewer than 5,000 tonnes annually may benefit from multiple flexible furnaces rather than one oversized melting system. Regional demand is expected to expand at approximately 3.2% annually as local manufacturing capabilities develop.

List of Top Foundry Equipment Companies

• Inductotherm (U.S.)
• Buhler (Switzerland)
• Norican (Denmark)
• Toshiba (Japan)
• Sinto (U.S.)

Top 2 Companies Market Share

Norican: Norican is estimated to account for approximately 19% share among the supplied companies, supported by its broad presence across moulding, surface preparation, foundry automation, digital process control, and integrated production systems. Moulding Machine and Shot Blasting Machine together represent approximately 31% of total Foundry Equipment Market demand, creating a substantial addressable base for suppliers active in both processes. Norican's competitive position is increasingly linked to digital foundry solutions that allow operators to analyze production conditions over more than 100,000 annual machine cycles.

Buhler: Buhler is estimated to represent approximately 17% share among the supplied companies, supported by high-pressure Die Casting Machine technology and expanding megacasting capabilities. Its large two-platen platforms reach approximately 92,000 kN locking force and can inject more than 200 kg of molten aluminum during one shot. More than 900 units of its major large-format platform family operate worldwide. Together, Norican and Buhler are estimated to account for approximately 36% of the supplied competitive group, while Inductotherm, Toshiba, and Sinto provide strong competition across melting, casting, molding, and finishing.

Investment Analysis

Foundry investment is increasingly concentrated on megacasting, electric melting, robotics, sensor networks, predictive maintenance, automated material handling, and real-time quality management. Automotive applications account for approximately 46% of market demand, making changes in vehicle architecture especially influential. Electric-car sales reached approximately 21 million units in 2025, encouraging foundries to expand aluminum casting capacity for structural and electric-drivetrain components. Large Die Casting Machine cells require coordinated investment in holding furnaces, vacuum systems, extraction robots, die-spraying equipment, trimming stations, cooling, and inspection. The capital commitment therefore extends across complete manufacturing cells rather than one machine.

Induction Furnace modernization represents another important investment area as foundries seek cleaner and more controllable melting. Digital power monitoring can measure electricity consumed per tonne and identify operating inefficiencies. A 5% energy-efficiency improvement applied to 20,000 tonnes of annual melting can significantly lower lifetime operating costs. Equipment retrofits also provide an investment pathway for smaller operators because sensors, automated controls, and remote monitoring can upgrade existing systems without complete line replacement. Demand for modernization packages is therefore expected to grow alongside new-equipment investment.

New Product Development

New product development in Die Casting Machine equipment focuses on increasing casting size while simultaneously improving precision, productivity, and digital control. Large platforms reaching approximately 92,000 kN locking force allow manufacturers to produce complex vehicle structures that replace up to 100 individual parts in selected designs. Equipment developers are improving injection control, vacuum performance, die-temperature regulation, automated spraying, extraction, and trimming because process instability becomes more costly as casting size increases. Smart cell-management systems increasingly coordinate the press and peripheral equipment through one digital platform.

Development across Induction Furnace, Moulding Machine, Coremaking Machine, and Shot Blasting Machine categories emphasizes connectivity and autonomous control. Furnaces increasingly track energy and refractory conditions continuously, molding lines store more than 100 digital recipes, core systems use robotic handling, and blasting machines monitor turbine and media performance. Predictive maintenance algorithms can detect abnormal temperature or vibration before equipment fails. Through 2035, foundry equipment development will increasingly combine mechanical engineering with software, sensors, analytics, and remote service capability.

Five Recent Developments

• September 2024: Megacasting investment accelerated as advanced Die Casting Machine platforms with approximately 92,000 kN locking force gained adoption for large automotive aluminum structures and component consolidation.
• February 2025: Installation of a first new 92,000 kN megacasting cell was completed at an Asian electric-vehicle component facility as part of a 2-machine production expansion.
• April 2025: A second large structural casting program advanced with equipment capable of replacing up to approximately 100 individual vehicle components through one integrated die-cast structure.
• January 2026: Foundry modernization increasingly emphasized electric Induction Furnace systems, automated energy monitoring, robotic handling, predictive maintenance, and data-driven control across high-volume production facilities.
• June 2026: Equipment manufacturers expanded Industry 4.0 functionality as customers increasingly required integrated cell monitoring across presses, robots, furnaces, vacuum systems, finishing equipment, and more than 100 process variables.

Report Coverage

The Foundry Equipment Market analysis evaluates current industry conditions using 2025 as the principal base year and examines development across the 2026-2035 forecast horizon. Product segmentation covers exactly 6 supplied categories: Die Casting Machine, Centrifugal Casting Machine, Induction Furnace, Moulding Machine, Coremaking Machine, and Shot Blasting Machine, representing estimated market shares of approximately 29%, 8%, 21%, 18%, 11%, and 13%, respectively. Application segmentation covers exactly 4 supplied categories: Automotive, Aerospace, Machinery, and Others, representing approximately 46%, 12%, 28%, and 14% of market demand. The analysis evaluates megacasting, electric melting, automated molding, core production, robotic finishing, process simulation, predictive maintenance, digital monitoring, structural aluminum, energy efficiency, machine connectivity, and automated quality control. Global vehicle production reached approximately 96.4 million units in 2025, while electric cars accounted for about 25% of new-car sales, providing major underlying demand for automotive casting modernization.

Regional coverage evaluates Asia-Pacific, Europe, North America, Latin America, and Middle East & Africa, representing estimated market shares of approximately 48%, 22%, 20%, 6%, and 4%, respectively. Competitive coverage is restricted to the supplied companies Inductotherm, Buhler, Norican, Toshiba, and Sinto. Current equipment development emphasizes high-force Die Casting Machine platforms, digitally controlled Induction Furnace systems, automated Moulding Machine lines, precision Coremaking Machine equipment, robotic Shot Blasting Machine systems, and data-connected casting cells. Large die-casting platforms now reach approximately 92,000 kN locking force, while individual structural castings can replace up to about 100 separate components. With approximately 3.4% CAGR projected over 2026-2035, market competition will increasingly center on equipment productivity, energy consumption, cycle stability, digital connectivity, automated material handling, predictive maintenance, technical service, casting-quality consistency, and the capability to sustain production programs exceeding approximately 100,000 cycles annually.