Key Highlights
• Cyclic Olefin Polymer (COP) is a high-performance thermoplastic polymer made from cycloolefins, a group of hydrocarbons containing one or more carbon-carbon double bonds in a cycle (ring). COP is designed to provide many unique properties such as high transparency, low water absorption, excellent chemical resistance and high thermal stability. This versatile polymer is known for its amorphous structure, meaning it has no distinct crystalline structure, making it a unique product. COP is widely used in many industries due to its clear appearance and ability to be formed into complex shapes. In medicine, it is used in the production of disposable medical devices such as syringes and test tubes due to its biocompatibility and sterility. COP's optical clarity and chemical resistance make it useful in the production of optical components, LED lighting, and laboratory equipment. Additionally, its low hygroscopicity makes it suitable for use in microfluidic devices and analytical tools where accuracy and stability are important. Due to its excellent physical and chemical properties, COP is constantly being researched and developed for new applications; This makes it an important part of the modern polymer industry, especially in applications involving optical devices and harsh environmental protection. . High performance equipment.
• The market size of the worldwide Cyclic Olefin Polymer Industry surpassed USD XX Billion in 2023, and by 2032, it is projected to reach USD XX billion, boosting at a CAGR of XX%.
• In June 2022, Mitsui Chemicals announced that it will establish a new facility at its Osaka plant in Takaishi City, Osaka Prefecture, to produce APEL series cyclic olefin copolymer. By building a new facility, Mitsui Chemicals' APEL™ production capacity will increase by 50%.
• Various factors in today's market environment are increasing the demand for cyclic olefin polymers (COPs). Primarily, COP is prized for its unique composition, including transparency, excellent chemical properties, and low water absorption. These properties make them invaluable in fields that require transparent and stable data, such as optics, photonics and diagnostics. In healthcare, COP is widely used in the production of medical devices and packaging due to its biocompatibility and ability to withstand various sterilization processes, meeting stringent commercial requirements. Also, technological development and efficiency in continuous miniaturization are increasing in microfluidic devices, sensors, etc. increased the demand for COPs in the use of high technology. Their ability to mold complex shapes with high accuracy leaves them unable to create design-critical processes such as micro optics and wafer laboratory systems. Additionally, people's interest in sustainable products that address environmental issues is increasing, increasing the popularity of COP. These polymers are recyclable, reducing the environmental impact of single-use plastics. As businesses and consumers become more environmentally conscious, demand for environmentally friendly materials such as COP is expected to increase, driving innovation and usage in the industry.
Scope of the Industry Profile
Key Players
• Mitsui Chemicals, Inc. (Japan)
• Polyplastics Co., Ltd. (China)
• TOPAS Advanced Polymers (US)
• Zeon Corporation (Japan)
• JSR Corporation (Japan)
• Apex Techno Polymer Pvt. Ltd. (India)
• Dow Chemical Company (US)
• Sumitomo Chemical Co., Ltd. (Japan)
Segmentation
By Grade
• Homopolymer
• Copolymer
By Copolymer Composition
• Norbornene-based COP
• Tetracyclododecene (TCDD)-based COP
• Other Copolymer Compositions
By Manufacturing Process
• Metallocene Catalyst
• Ziegler-Natta Catalyst
• Other Manufacturing Processes
By Application
• Optical Plastic Lenses
• Medical Packaging Materials
• Cosmetic Packaging Materials
• Food Packaging Materials
• Electric & Electronic Components
• Advanced Diagnostic & Microfluidic Applications
• Other Applications
What to Expect from Industry Profile
1. Save time carrying out entry-level research by identifying the size, growth, major segments, and leading players in the Cyclic Olefin Polymer market in the world.
2. Use the PORTER’s Five Forces analysis to determine the competitive intensity and therefore market attractiveness of the Global Cyclic Olefin Polymer market.
3. Leading company profiles reveal details of key Cyclic Olefin Polymer market players’ global operations, strategies, financial performance & their recent developments.
4. Add weight to presentations and pitches by understanding the future growth prospects of the Global Cyclic Olefin Polymer market with forecast for decade by both market share (%) & revenue (USD Million).
Recent Development
• In September 2022, Polyplastik plans to build a new facility in Leuna, Germany, to produce Topas cyclic olefin copolymer, a glass polymer commonly used in medical devices. The facility will more than double the facility's capacity by adding 20,000 tonnes of annual capacity. Two months ago, the Japanese company Daicel announced that it would acquire Celanese as its Poliplastik partner, and two months later the Japanese company decided to establish a factory.
Segment Insights
By Grade
The demand for cyclic olefin polymer (COP) homopolymer is mainly due to its excellent optical clarity, high purity and chemical resistance. These properties allow them to play an important role in the optics, photonics and medical industries where clear and transparent information is required. Homopolymer COPs find applications in optical lenses, LED devices, and medical devices due to their inhomogeneity. They also refuse to resort to many sterile and environmentally friendly recycling methods to further increase their appeal. The industry is looking for COPs for its unique and better products and supporting them using various technologies and good environment.
By Application
The demand for cyclic olefins in optical plastic lens applications ensures minimal light scattering and distortion due to their excellent optical clarity, low birefringence and high Abbe number. These qualities are essential for the quality of cameras, glasses and other optical devices to provide users with clear and sharp vision. Additionally, cyclic olefins are very durable and environmentally friendly, making them ideal for use in a variety of climates. Their ability to be molded into complex shapes further increases their appeal. As the demand for high-quality optical materials and heavy-duty materials continues, cyclic olefins continue to be used in optical materials to meet changing market conditions and customers.
Regional Insights
The demand for cyclic olefins in North America is driven by many factors, primarily the expansion of the range of polymers used in different industries. In the automotive industry, cyclic olefins are increasingly used in heavy-duty products, helping to improve fuel efficiency and reduce overall vehicle weight. Their resistance to chemicals and heat makes them useful in the production of car sensors, connectors and lighting. In addition, North America's large electrical equipment and telecommunications industry requires equipment derived from polycyclic olefins with high performance properties such as poor water absorption and good electrical properties. In healthcare, the increasing demand for cyclic olefins due to their biocompatibility and sterility makes them important in the production of medical devices, diagnostic equipment and pharmaceutical containers. In addition, the push for sustainable and environmentally friendly materials has encouraged the use of cyclic olefins because they are recyclable and have a lower environmental impact than other plastics. Additionally, research and development continues to focus on improving cyclic olefin properties such as optical clarity and thermal stability, which are of interest to industries such as optics, photonics and packaging. As North American companies seek new and better materials for their products, the demand for cyclic olefins is poised to increase due to these olefins' unique combination of properties and ability to meet the demand needs of various industries in the region.
1. Key Findings
2. Introduction
2.1. Executive Summery
2.2. Regional Snapshot
2.3. Market Scope
2.4. Market Definition
3. Across The Globe
3.1. Factors Affecting End Use Industries
3.2. Upcoming Opportunities
3.3. Market Dynamics
3.3.1. Ongoing Market Trends
3.3.2. Growth Driving Factors
3.3.3. Restraining Factors
3.4. Value Chain Analysis
3.4.1. List of Manufacturers
3.4.2. List of Distributors/Suppliers
3.5. PORTER’s & PESTLE Analysis
3.6. Key Developments
3.7. Key Industry Patents
4. Global Cyclic Olefin Polymer Market
Overview, By Grade
4.1. Market Size (US$ Mn) Analysis, 2019
– 2034
4.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
4.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
4.3.1.
Homopolymer
4.3.2. Copolymer
5. Global Cyclic Olefin Polymer Market
Overview, By Copolymer Composition
5.1. Market Size (US$ Mn) Analysis, 2019
– 2034
5.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
5.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
5.3.1.
Norbornene-based COP
5.3.2.
Tetracyclododecene (TCDD)-based COP
5.3.3.
Other Copolymer Compositions
6. Global Cyclic Olefin Polymer Market
Overview, By Manufacturing Process
6.1. Market Size (US$ Mn) Analysis, 2019
– 2034
6.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
6.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
6.3.1.
Metallocene Catalyst
6.3.2.
Ziegler-Natta Catalyst
6.3.3.
Other Manufacturing Processes
7. Global Cyclic Olefin Polymer Market
Overview, By Application
7.1. Market Size (US$ Mn) Analysis, 2019
– 2034
7.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
7.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
7.3.1.
Optical Plastic Lenses
7.3.2.
Medical Packaging Materials
7.3.3.
Cosmetic Packaging Materials
7.3.4.
Food Packaging Materials
7.3.5.
Electric & Electronic Components
7.3.6.
Advanced Diagnostic & Microfluidic
Applications
7.3.7.
Other Applications
8. Global Cyclic Olefin Polymer Market
Overview, By Region
8.1.
Market
Size (US$ Mn) Analysis, 2019 – 2034
8.2.
Market
Share (%) Analysis (2023 vs 204), Y-o-Y Growth (%) Analysis (2023-2034) &
Market Attractiveness Analysis (2024-2034)
8.3.
Market
Absolute $ Opportunity Analysis, 2019 – 2034
8.3.1.
North
America
8.3.2.
Europe
8.3.3.
Asia
Pacific
8.3.4.
Middle
East & Africa
8.3.5.
South
America
9. North America Cyclic Olefin Polymer
Market Overview
9.1. Market Size (US$ Mn) Analysis, 2019
– 2034
9.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
9.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
9.3.1.By Country
9.3.1.1.
U.S.
9.3.1.2.
Canada
9.3.1.3.
Mexico
9.3.2.
By
Grade
9.3.3.
By
Copolymer Composition
9.3.4.
By
Manufacturing Process
9.3.5.
By
Application
10. Europe Cyclic Olefin Polymer Market
Overview
10.1. Market Size (US$ Mn) Analysis, 2019
– 2034
10.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
10.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
10.3.1. By Country
10.3.1.1.
UK
10.3.1.2.
Italy
10.3.1.3.
Spain
10.3.1.4.
Germany
10.3.1.5.
France
10.3.1.6.
Rest of Europe
10.3.2. By Grade
10.3.3. By Copolymer Composition
10.3.4. By Manufacturing Process
10.3.5. By Application
11. Asia Pacific Cyclic Olefin Polymer
Market Overview
11.1. Market Size (US$ Mn) Analysis, 2019
– 2034
11.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
11.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
11.3.1. By Country
11.3.1.1.
China
11.3.1.2.
Japan
11.3.1.3.
India
11.3.1.4.
South Korea
11.3.1.5.
Rest of Asia Pacific
11.3.2. By Grade
11.3.3. By Copolymer Composition
11.3.4. By Manufacturing Process
11.3.5. By Application
12. Middle East & Africa Cyclic
Olefin Polymer Market Overview
12.1. Market Size (US$ Mn) Analysis, 2019
– 2034
12.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
12.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
12.3.1. By Country
12.3.1.1.
GCC
12.3.1.2.
South Africa
12.3.1.3.
Rest of Middle East & Africa
12.3.2. By Grade
12.3.3. By Copolymer Composition
12.3.4. By Manufacturing Process
12.3.5. By Application
13. South America Cyclic Olefin Polymer
Market Overview
13.1. Market Size (US$ Mn) Analysis, 2019
– 2034
13.2. Market Share (%) Analysis (2023 vs
204), Y-o-Y Growth (%) Analysis (2023-2034) & Market Attractiveness
Analysis (2024-2034)
13.3. Market Absolute $ Opportunity
Analysis, 2019 – 2034
13.3.1. By Country
13.3.1.1.
Brazil
13.3.1.2.
Argentina
13.3.1.3.
Rest of South America
13.3.2. By Grade
13.3.3. By Copolymer Composition
13.3.4. By Manufacturing Process
13.3.5. By Application
14. Country Wise Market Analysis
14.1. Growth Comparison By Key Countries
15. Competitive Landscape
15.1. Market Share (%) Analysis, By Top
Players
15.2. Maret Structure Analysis, By Tier I
& II Companies
16. Company Profiles
16.1. Mitsui Chemicals, Inc. (Japan)
16.1.1. Company Overview
16.1.2. Business Segments
16.1.3. Financial Insights
16.1.4. Key Business Aspects (Noise
Analysis)
16.2. Polyplastics Co., Ltd. (China)
16.3. TOPAS Advanced Polymers (US)
16.4. Zeon Corporation (Japan)
16.5. JSR Corporation (Japan)
16.6. Apex Techno Polymer Pvt. Ltd.
(India)
16.7. Dow Chemical Company (US)
16.8. Sumitomo Chemical Co., Ltd. (Japan)
17. Analysis & Recommendations
17.1. Targeting Segment
17.2. Targeting Region
17.3. Market Approach
18. Research Methodology
19. Disclaimer
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