Plastics Processing Machinery Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Machine Type (Injection Molding Machines, Extrusion Machines, Blow Molding Machines, Thermoforming Machines, Others), By Plastic Type (Thermoplastics, Thermosets, Elastomers, Bioplastics), By Application (Packaging, Automotive, Consumer Goods, Construction, Electrical & Electronics, Medical Devices, Others), By Region & Competition, 2020-2030F

Market Overview

The Global Plastics Processing Machinery Market was valued at USD 28.38 Billion in 2024 and is expected to reach USD 36.46 Billion by 2030 with a CAGR of 4.11% during the forecast period. 

The global plastics processing machinery market is experiencing steady growth, driven by rising demand across various end-use industries such as automotive, packaging, construction, consumer goods, and healthcare. As the global economy recovers from pandemic-induced disruptions, industries are increasingly investing in automation and modern production techniques, which include the adoption of advanced plastics processing machinery. These machines—comprising injection molding, blow molding, extrusion, thermoforming, and compression molding equipment—play a critical role in mass-producing high-performance plastic components with precision and efficiency. The growing use of lightweight plastic components in automotive manufacturing to reduce vehicle weight and improve fuel efficiency is a key market driver. Additionally, increased packaging needs in food and beverage, pharmaceuticals, and e-commerce are accelerating the demand for advanced and flexible plastics processing technologies.

Technological advancements such as Industry 4.0 integration, energy-efficient machinery, and smart control systems are reshaping the landscape of this market. Manufacturers are incorporating IoT-enabled features to offer real-time monitoring, predictive maintenance, and process optimization, which not only improve productivity but also minimize downtime. Moreover, the trend toward sustainable manufacturing is fostering the adoption of bio-based and recyclable plastic processing solutions. Governments and regulatory authorities across Europe, North America, and Asia-Pacific are encouraging eco-friendly practices through policies and incentives, further boosting demand for machinery that supports the use of biodegradable and recycled materials.

Regionally, Asia-Pacific holds the largest share of the global market, owing to rapid industrialization, favorable government initiatives, and the presence of major manufacturing hubs in countries like China, India, and Japan. North America and Europe are mature markets, yet they continue to witness investments in high-tech machinery and sustainability-focused solutions. Meanwhile, Latin America and the Middle East & Africa are emerging as potential growth areas, backed by infrastructural development and rising consumption of plastic products.

Competitive dynamics in the plastics processing machinery market are evolving, with leading players focusing on mergers, acquisitions, and strategic partnerships to expand their global reach and strengthen technological capabilities. Companies are also increasingly customizing machinery to meet specific client requirements, fostering deeper customer engagement. Notable recent developments include ENGEL Group’s strategic partnership with Electronica Plastic Machines in India and Bain Capital’s majority investment in Milacron, indicating robust investor interest and industry consolidation. Overall, the global plastics processing machinery market is poised for continued growth, underpinned by technological innovation, sustainability trends, and expanding industrial demand worldwide. 

Key Market Drivers

Integration of Smart Manufacturing and Industry 4.0 Technologies

The growing emphasis on smart manufacturing is a major driver of the plastics processing machinery market. Industry 4.0 technologies such as automation, robotics, AI, and IoT are increasingly embedded into plastic machinery systems to improve operational efficiency and reduce downtime. These technologies enable real-time monitoring, data collection, and analytics, allowing manufacturers to fine-tune processes for greater precision, lower waste, and energy efficiency.

Predictive maintenance is one of the standout benefits of smart machinery. Sensors embedded in machines monitor performance and detect early signs of wear or malfunction, preventing unexpected breakdowns. This capability significantly reduces unplanned downtime and increases equipment longevity. Over 75% of plastics manufacturers in North America and Europe have either adopted or are planning to adopt Industry 4.0 technologies within the next two years.

A shift toward smart factories is also enhancing product consistency. Automated systems ensure uniform temperature control, injection pressure, and cycle times in molding machines. These improvements enhance product quality and enable manufacturers to meet tight tolerances and specifications, particularly in high-end industries like automotive, medical devices, and electronics.

As competition intensifies and labor shortages become more common in some regions, smart machinery offers a solution that reduces dependence on skilled labor. The ability to program machines and monitor operations remotely is becoming a key differentiator in procurement decisions, particularly in export-oriented manufacturing economies. As a result, plastics machinery manufacturers that offer Industry 4.0-ready solutions are seeing strong demand from forward-thinking customers.

Increasing Demand for Sustainable and Circular Economy Solutions

The global shift toward sustainability is profoundly influencing the plastics processing machinery landscape. Environmental regulations and consumer awareness are pressuring manufacturers to reduce plastic waste, improve recycling rates, and adopt biodegradable alternatives. In response, plastics machinery manufacturers are developing equipment capable of processing recycled materials and biodegradable resins without compromising quality or performance.

Newer machines feature advanced filtration systems and adaptive controls that handle variable-quality recycled plastics more effectively than older models. This capability allows manufacturers to maintain consistent production quality even when using post-consumer or post-industrial recycled feedstock.

Governments worldwide are implementing stricter environmental regulations targeting single-use plastics and mandating minimum recycled content in products and packaging. In some countries, regulations now require that certain consumer products contain at least 30% recycled content, pushing companies to upgrade their machinery to handle these materials. Over 120 countries have implemented policies to reduce plastic waste, increasing pressure on processors to use recycled materials.

Machinery capable of producing products from bio-based plastics such as PLA and PHA is also in higher demand. These materials require specific temperature and pressure controls during processing, which only modern equipment can provide consistently.

Furthermore, closed-loop manufacturing—where waste is reprocessed on-site and reused—is growing. This model relies heavily on advanced processing equipment capable of handling variable material types and quality. As sustainability moves from a niche requirement to a mainstream priority, demand for specialized machinery that supports circular economy initiatives continues to rise.

Expansion of the Automotive Industry and Lightweighting Trend

The plastics processing machinery market is closely linked to the global automotive industry, which continues to demand lightweight, high-strength components to improve fuel efficiency and meet emissions regulations. Modern vehicles use plastic extensively in bumpers, dashboards, trim panels, fuel systems, under-the-hood components, and more. These applications require precision-engineered parts, pushing demand for advanced injection molding and extrusion machines.

Manufacturers are moving away from metal components in favor of plastics due to their lower weight, corrosion resistance, and design flexibility. This shift is further motivated by environmental regulations that encourage fuel savings and reduced emissions. For electric vehicles (EVs), in particular, lightweight components are crucial to extending battery range.

Advanced processing machines are critical in meeting the tight tolerances and complex geometries required in automotive parts. They enable multi-material molding, overmolding, and insert molding, allowing for integrated parts that reduce the number of assembly steps and overall production costs.

It’s estimated that plastic now accounts for up to 50% of the volume of a modern vehicle, although it contributes only about 10% of the weight. This ratio highlights the critical role plastic components play in the vehicle design landscape. As automakers expand EV production and innovate new mobility platforms, the demand for precision plastic parts—and therefore the machines that produce them—is rising significantly.

Additionally, global automakers are localizing production and expanding in emerging markets. This localization requires new, efficient manufacturing setups, driving demand for compact, automated, and energy-efficient plastics processing machinery tailored to localized needs.

Rising Demand in the Packaging Industry

The packaging industry remains one of the largest consumers of plastics processing machinery, especially for applications in food, beverages, personal care, and pharmaceuticals. The need for durable, lightweight, and protective packaging is growing, fueled by urbanization, changing lifestyles, and the rise of online retail and food delivery services.

Injection molding and blow molding machines are widely used to produce bottles, caps, containers, films, and flexible packaging materials. As product differentiation and shelf appeal become more critical, packaging designs are becoming more intricate, demanding high-precision molds and equipment that can handle complex geometries with fast cycle times.

Consumer preference for single-serve and ready-to-eat packaged goods has led to a spike in demand for small-format packaging. This trend requires machinery that can produce high volumes of small parts efficiently. Modern machines, with features like multi-cavity tooling and high-speed automation, are meeting this demand while reducing material usage and energy consumption. Global demand for flexible plastic packaging is growing at a steady pace, with over 65 million metric tons consumed annually.

The rise of smart and interactive packaging—such as packaging with QR codes, sensors, and tamper-proof features—is also influencing the type of machinery used. Manufacturers are now investing in equipment that integrates seamlessly with printing, labeling, and sealing systems to deliver high-value packaging solutions.

Innovation in Machinery Design and Automation

Continuous innovation in machinery design is transforming the plastics processing machinery market. Manufacturers are prioritizing energy efficiency, user-friendly interfaces, modular configurations, and compact footprints to better serve industries under pressure to lower operating costs and boost productivity.

Modern plastics processing machines consume significantly less energy than their older counterparts, thanks to servo-hydraulic and all-electric drives. These technologies offer precise control, faster response times, and less heat generation, leading to lower energy bills and improved environmental performance.

Human-machine interfaces (HMIs) have become more intuitive, incorporating touchscreen controls, remote monitoring apps, and AI-powered assistants that guide operators through complex processes. These features are reducing training time, minimizing human error, and improving safety on the factory floor.

Machine modularity is another breakthrough. Manufacturers can now configure equipment to match specific production requirements. Whether it’s switching molds, altering cavity sizes, or integrating robotic arms, modern machinery supports rapid reconfiguration with minimal downtime.

Robotic integration is also accelerating. Robots are being used for part removal, assembly, inspection, and packaging—complementing core processing machines and streamlining the entire production cycle. As the pace of innovation accelerates, machinery that adapts to new materials, designs, and production models is becoming a cornerstone of competitive advantage.

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Key Market Challenges

Volatility in Raw Material Prices

The plastics processing machinery market is significantly affected by fluctuations in the prices of raw materials such as steel, aluminum, and other alloys. These materials constitute a large portion of the total production cost of machinery. Even minor shifts in prices can erode profit margins for machinery manufacturers and disrupt pricing strategies. For example, global steel prices experienced a surge of over 50% between 2020 and 2022 due to supply chain constraints and increased demand from infrastructure projects. Such volatility affects machinery production cycles, procurement budgets, and end-user confidence.

The inconsistency in raw material availability further aggravates the challenge. During geopolitical events or pandemics, supply disruptions are common. This leads to delays in manufacturing, elevated lead times, and a loss of business opportunities. For small and mid-sized manufacturers who cannot bulk purchase or hedge commodity prices, this becomes a critical pain point.

Additionally, rising energy costs, which directly influence the cost of manufacturing and transporting heavy machinery, further squeeze operational budgets. Machinery makers must either absorb these costs or pass them on to customers, potentially weakening their market competitiveness.

Manufacturers are attempting to counter this by exploring alternative materials, optimizing production techniques, and localizing supply chains. However, until material price volatility is consistently managed, it will continue to pose a major risk to operational sustainability and profitability.

High Capital Investment Requirements

Entering or expanding within the plastics processing machinery industry requires significant capital investment, particularly for developing technologically advanced, automated, and sustainable machinery. For instance, setting up a manufacturing plant equipped with CNC machining tools, robotics, quality control systems, and ERP software can cost several million dollars. This creates a high barrier to entry for new players and limits innovation among small and medium-sized enterprises (SMEs).

Furthermore, existing machinery manufacturers face continuous pressure to upgrade their production lines in alignment with Industry 4.0 and smart factory trends. These upgrades often require new machines, software integration, employee training, and regular maintenance—all of which come at a high cost.

Customer expectations have also risen. Manufacturers must now deliver machinery with IoT capabilities, energy-efficient designs, and compatibility with recycled or biodegradable materials. R&D costs to meet these requirements are substantial. Unlike the automotive or electronics industries, where high sales volumes offset R&D expenses, plastics machinery often caters to niche needs with limited batch sizes, making cost recovery slower.

Even with financing options, interest rate fluctuations globally can make borrowing more expensive, reducing the feasibility of expansion projects. Many SMEs rely on government incentives or public-private partnerships, which may not always be timely or sufficient.

Technological Obsolescence and Lifecycle Issues

Rapid technological advancements in automation, software, and sustainability features are accelerating the obsolescence of plastics processing machinery. Machines that were considered cutting-edge just five to seven years ago may now be outdated due to lack of connectivity, limited energy efficiency, or poor compatibility with modern materials such as bioplastics.

This is a significant issue for manufacturers and end-users alike. Customers are increasingly demanding machinery that is not only durable but also adaptable to evolving production needs. However, legacy machines often lack modular design or software upgrade paths, forcing complete replacements rather than incremental updates. This raises total cost of ownership and complicates lifecycle management.

From a manufacturer’s standpoint, product development cycles are shrinking. There's pressure to launch new models every 2–3 years to remain competitive. However, shortening development timelines can lead to quality control issues, regulatory delays, or incomplete feature rollouts.

Moreover, interoperability between old and new systems poses a technical hurdle. Many factories operate mixed-technology environments, where older machines must work alongside newer digital systems. This can create data silos, process inefficiencies, and cybersecurity vulnerabilities.

Technological obsolescence also has an environmental impact. Scrapping older machines contributes to industrial waste and carbon emissions unless sustainable disposal or recycling practices are followed—an area still lacking uniform regulation globally.

To address this, manufacturers are beginning to design more modular, upgradeable machinery. Yet, the pace of change continues to challenge long-term equipment planning and investment security.

Regulatory Pressure and Environmental Compliance

The plastics processing machinery industry is increasingly subject to complex regulatory frameworks, especially regarding energy efficiency, emissions control, and compatibility with sustainable materials. Regulations vary significantly by country, and complying with each can be both time-consuming and costly.

For example, the European Union enforces strict eco-design directives and REACH chemical regulations that impact machinery design. Meanwhile, North America places emphasis on energy consumption standards and workplace safety. In Asia-Pacific, the regulatory environment is fragmented, requiring manufacturers to customize machinery for each regional market.

Environmental concerns also influence machine specifications. Equipment must increasingly be capable of processing biodegradable plastics, handling recycled material, and minimizing waste during production. This often requires design changes, new tooling, or enhanced control systems. However, retrofitting existing machines to meet new standards is not always feasible.

Failure to comply with regulations can result in product recalls, export restrictions, or legal penalties. The reputational damage is also significant, especially in an industry increasingly influenced by ESG (Environmental, Social, Governance) metrics.

Moreover, compliance demands are dynamic. Governments are frequently updating rules to keep pace with climate goals, which creates uncertainty for long-term production planning. Smaller firms may lack the internal compliance teams or legal expertise to monitor these changes effectively.

While regulatory shifts aim to push the industry toward sustainability, they also place significant operational strain on machinery producers, especially those serving global clients with diverse compliance needs.

Skilled Labor Shortage in Machinery Operation and Maintenance

Despite advances in automation, plastics processing machinery still requires skilled technicians for installation, operation, troubleshooting, and maintenance. However, the global manufacturing sector is facing a talent shortage, especially in fields like mechatronics, industrial automation, and machinery diagnostics.

According to various industrial surveys, over 60% of machinery manufacturers report difficulty in finding qualified staff. The problem is acute in developing countries where technical training infrastructure is limited and vocational education often lags behind industrial requirements. Even in advanced economies, the aging workforce is retiring faster than new talent is being trained.

Operating modern machinery requires knowledge of programmable logic controllers (PLCs), robotics, and industrial IoT systems. Yet, many workers are only familiar with basic mechanical systems, creating a gap that delays machine adoption and limits production efficiency.

The shortage of skilled labor also affects after-sales service. Delays in maintenance or repair work reduce machine uptime and increase the likelihood of operational disruptions. This creates dissatisfaction among end-users and places additional support burdens on manufacturers.

To counter this, companies are investing in in-house training programs, partnerships with technical institutes, and digital simulation tools. However, these are long-term strategies and may not provide immediate relief.

Unless addressed systematically, the skilled labor gap will continue to slow down machinery deployment, hinder technology upgrades, and reduce the ROI for plastics processing investments.

Key Market Trends

Rise in Demand for High-Precision Machinery in Medical and Electronics Sectors

The demand for high-precision plastic components in industries like healthcare and electronics is significantly shaping the market. Medical devices, diagnostic equipment, and electronic casings require micro-precision molding and strict compliance with quality standards. As a result, there is a growing need for advanced injection molding machines with tighter tolerances, cleanroom compatibility, and real-time monitoring capabilities. These machines are also expected to support complex mold configurations and ensure zero-defect production. Innovations like servo-driven electric injection systems, rapid mold cooling, and integrated quality inspection are increasingly incorporated. In the electronics sector, miniaturization of components has accelerated the need for highly accurate molding equipment, especially for connectors, casings, and structural components in consumer gadgets. The demand for clean and contamination-free production environments is also encouraging the adoption of low-emission, compact, and automated machines. This trend is particularly pronounced in developed economies, where regulations governing the production of sensitive devices are stringent. Consequently, manufacturers are investing heavily in smart, compact, and high-precision plastics processing systems.

Customization and Modular Machinery Configuration

The need for operational flexibility is encouraging the development of customizable and modular plastics processing machinery. End-users across automotive, consumer goods, and packaging sectors are seeking machines that can quickly adapt to different product specifications and production volumes. Modular equipment configurations allow manufacturers to expand capacity or integrate new features such as robotics, sensors, and auxiliary devices without replacing the entire system. This flexibility supports rapid prototyping and frequent product changes, particularly in competitive markets where speed-to-market is critical. Additionally, modular systems simplify maintenance and upgrades, as individual units can be replaced or enhanced with minimal disruption. The rise of low-volume, high-mix production models has made it necessary for machinery to accommodate frequent tooling changes and short production runs. Machines with user-friendly interfaces and remote diagnostics further enhance usability. As global competition intensifies, the ability to respond to market changes quickly through reconfigurable machinery is becoming a strategic advantage for manufacturers.

Growing Automation and Robotics Integration

Automation is revolutionizing plastics processing facilities, enhancing productivity and reducing dependence on manual labor. The integration of robotics—especially collaborative robots (cobots)—is streamlining material handling, part removal, assembly, and packaging processes. Robotics also reduces human error and ensures consistency in repetitive tasks, improving overall product quality. In high-volume production, automated cells that combine molding machines, inspection stations, and robotic arms are becoming increasingly popular. These setups improve throughput while maintaining a compact footprint. Additionally, the global labor shortage in skilled trades has encouraged manufacturers to rely more on automated solutions. The use of automation also supports energy savings, as machines can be optimized to run during off-peak hours or shut down autonomously when idle. Touchscreen HMIs, programmable logic controllers (PLCs), and AI-driven robotics further increase production control and agility. The shift towards full automation is transforming traditional factory layouts and setting new standards for efficiency and scalability in plastics manufacturing worldwide.

Segmental Insights

Machine Type Insights

Extrusion Machines segment dominated in the Global Plastics Processing Machinery market in 2024 due to several key factors that make extrusion technology crucial for high-volume production and versatility in processing various plastic materials. Extrusion machines are known for their ability to produce large volumes of plastic products with high speed and efficiency. This scalability makes them indispensable in industries such as packaging, automotive, and construction, where high throughput is essential to meet the demands of mass production. Extruders can handle continuous material flow, making them ideal for producing long lengths of plastic products like pipes, films, and sheets, which are widely used across industries.

Extrusion machinery can process a wide variety of plastic materials, including thermoplastics, composites, and biodegradable plastics. This versatility allows manufacturers to cater to diverse applications, from consumer goods packaging to more specialized medical and automotive components. The ability to handle different materials and meet stringent industry standards is a key factor driving the growth of this segment.

Modern extrusion machines are becoming more energy-efficient and technologically advanced, incorporating features such as automation, real-time monitoring, and material feeding control. These innovations enable better control over product quality and consistency, further increasing the demand for extrusion systems. Additionally, the integration of Industry 4.0 technologies such as IoT and AI in extrusion machines has enhanced their performance by providing real-time data analysis, leading to reduced downtime and improved production efficiency.

Extrusion machines offer lower operating costs compared to other plastic processing methods such as injection molding, especially for producing large quantities. Their long-term operational cost efficiency and relatively low maintenance requirements contribute to their widespread adoption across various manufacturing sectors.

Plastic Type Insights

Thermoplastics segment dominated in the Global Plastics Processing Machinery market in 2024 due to their widespread applications and versatility. Thermoplastics can be repeatedly melted and reshaped, making them ideal for high-volume production in industries such as packaging, automotive, and consumer goods. Their ability to be molded into complex shapes while maintaining durability and performance drives demand across various sectors. Furthermore, advancements in thermoplastic materials, such as biodegradable and recycled options, are supporting sustainable practices, enhancing their appeal. The ease of processing and recyclability of thermoplastics solidifies their market dominance.

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Regional Insights

Largest Region

North America dominated the Global Plastics Processing Machinery market in 2024 due to a combination of technological advancements, strong industrial infrastructure, and increasing demand for high-quality, efficient manufacturing solutions across various industries. North America, particularly the United States, is at the forefront of technological innovations in the plastics processing machinery sector. The adoption of smart manufacturing, Industry 4.0 technologies, and automation in production processes has revolutionized the region’s plastics industry. The incorporation of IoT, AI, and robotics in machinery enhances production efficiency, reduces downtime, and improves product quality, positioning North America as a leader in the adoption of cutting-edge technology.

The region has a robust manufacturing base in industries such as automotive, packaging, healthcare, and electronics, which are key consumers of plastics. As these industries demand precision, scalability, and energy-efficient solutions, the plastics processing machinery market in North America benefits from increased investments in machinery that meet these specific requirements. The growing trend of lightweight materials in automotive manufacturing and the need for high-quality packaging solutions also contribute to market expansion.

North America is experiencing a shift towards sustainability, with a growing emphasis on recycling and the use of recycled materials in plastic production. Manufacturers in the region are investing in machinery that can process recycled plastics efficiently. Extrusion systems designed for recycling and closed-loop systems have become essential in meeting both regulatory and consumer demand for eco-friendly production processes.

North America benefits from stringent regulations that drive innovation in sustainable manufacturing practices. Additionally, the presence of well-established research and development ecosystems and funding support enables continuous improvement in plastics processing machinery, further bolstering the region's market dominance.

Emerging Region

Europe was the emerging region in the Global Plastics Processing Machinery market in the coming period due to its focus on sustainability, innovation, and advanced manufacturing technologies. The region is adopting eco-friendly solutions, including recycling and bio-based plastics, which are driving demand for specialized machinery. Furthermore, Europe’s strong automotive, packaging, and consumer goods sectors require high-precision and energy-efficient equipment, fueling market growth. The European Union’s strict environmental regulations are also encouraging the use of advanced plastics processing technologies, further boosting the market. Additionally, investments in R&D and the transition to smart manufacturing are positioning Europe as a growing market leader.

Recent Developments

• In December 2024, Europe’s injection molding leader ENGEL Group entered a strategic partnership with India’s Electronica Plastic Machines (EPM), a major hydraulic injection molding manufacturer. By acquiring a stake in EPM, ENGEL brings the company under its umbrella, enabling stronger collaboration and expanded presence in the Indian market. The alliance aligns with ENGEL’s global strategy and enhances EPM’s access to advanced European technologies, setting the stage for innovation and growth in India’s plastics machinery sector.
• In February 2025, Bain Capital announced a majority investment in Milacron’s Injection Molding and Extrusion division. Hillenbrand, Inc. will retain a significant minority stake, forming a strategic partnership with Bain to accelerate Milacron’s growth. The collaboration aims to enhance the development of Milacron’s engineered plastics processing equipment and service offerings. This move marks a pivotal shift in Milacron’s ownership structure, positioning the company for increased innovation, global reach, and competitiveness in the plastics machinery market.
• In July 2024, PL Machinery signed an exclusive distribution agreement with LOMA Systems, becoming the UK’s sole provider of its metal detection and product inspection systems. Known for its excellence in servicing plastics processing ancillary equipment since 2006, PL Machinery enhances its offering with this new partnership. Founded by Dave Sams and Neal Northwood, the company reinforces its customer-first approach by aligning with LOMA’s high-quality solutions, further strengthening its role in the UK plastics manufacturing sector.
• In March 2025, it was reported that over 60,000 tons of plastic reach the Atlantic Ocean via the Amazon River annually, excluding microplastics and riverbank pollution. While plastic has enabled modern society, its environmental toll is critical. Researchers are advancing sustainable materials to retain plastic’s benefits while minimizing its ecological impact. These efforts aim to revolutionize production processes and contribute to a more sustainable future in plastics and materials science.

Key Market Players

• Husky Injection Molding Systems Ltd.
• Milacron LLC
• ENGEL Austria GmbH
• Haitian International Holdings Limited
• ARBURG GmbH + Co KG
• Sumitomo Heavy Industries, Ltd.
• The Japan Steel Works, Ltd.
• Chen Hsong Holdings Limited
• KraussMaffei Group
• Nissei Plastic Industrial Co., Ltd.

Report Scope:

In this report, the Global Plastics Processing Machinery Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:

• Plastics Processing Machinery Market, By Machine Type:

o   Injection Molding Machines

o   Extrusion Machines

o   Blow Molding Machines

o   Thermoforming Machines

o   Others

• Plastics Processing Machinery Market, By Plastic Type:

o   Thermoplastics

o   Thermosets

o   Elastomers

o   Bioplastics

• Plastics Processing Machinery Market, By Application:

o   Packaging

o   Automotive

o   Consumer Goods

o   Construction

o   Electrical & Electronics

o   Medical Devices

o   Others

• Plastics Processing Machinery Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  Germany

§  France

§  United Kingdom

§  Italy

§  Spain

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Asia-Pacific

§  China

§  India

§  Japan

§  South Korea

§  Australia

o   Middle East & Africa

§  Saudi Arabia

§  UAE

§  South Africa

Competitive Landscape

Company Profiles: Detailed analysis of the major companies present in the Global Plastics Processing Machinery Market.

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Company Information

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