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Using PDCPD (Polydicyclopentadiene) as a new material offers several environmental benefits compared to traditional materials. Some of the key environmental advantages include: Lower Carbon Footprint: PDCPD production typically involves lower energy consumption and fewer greenhouse gas emissions compared to other plastics. Carbon emissions are reduced during the production process, making it a more eco-friendly option. Reduced Waste: PDCPD is a thermosetting plastic, meaning it can be molded and shaped into final products with minimal material waste. This characteristic allows for efficient use of the material and reduces the amount of discarded or leftover material in the manufacturing process. Recyclability: PDCPD is recyclable through various processes, including mechanical recycling and pyrolysis. By recycling PDCPD waste or end-of-life products, valuable resources can be recovered. This contributes to the circular economy and reduces the demand for virgin materials. Enhanced Durability: PDCPD exhibits excellent impact resistance, chemical resistance, and dimensional stability. These properties make finished products more durable and long-lasting, reducing the need for frequent replacements. Increased product lifespan helps conserve resources and reduces waste generation. Lightweight Construction: PDCPD offers a high strength-to-weight ratio, which makes it an attractive alternative to heavier materials such as metals. Its lightweight nature can contribute to fuel efficiency in industries like automotive and transportation, reducing energy consumption and carbon emissions. Corrosion Resistance: PDCPD is resistant to corrosion from chemicals, water, and other environmental factors. This resistance reduces the need for protective coatings or treatments, minimizing the use of chemical agents that can harm the environment during application and disposal. Reduced VOC Emissions: PDCPD does not typically contain harmful volatile organic compounds (VOCs) that can contribute to air pollution and health hazards. It can be used in applications where low VOC emissions are crucial, such as in the production of automotive components and consumer goods. In summary, using PDCPD as a new material offers environmental benefits such as lower carbon footprint, reduced waste generation, recyclability, enhanced durability, lightweight construction, corrosion resistance, and reduced VOC emissions. These advantages contribute to a more sustainable and eco-friendly approach to material usage and processes.

PDCPD (Polydicyclopentadiene) is a type of thermoset plastic that offers excellent mechanical properties, high impact resistance, and exceptional durability. It is widely used in the production of various components across industries. The unique characteristics of PDCPD can significantly enhance the durability and overall performance of your. One of the key factors contributing to the enhanced durability of products made from PDCPD is its resistance to corrosion, chemicals, and UV radiation. PDCPD components can withstand harsh environmental conditions, making them suitable for outdoor applications or industries where exposure to chemicals and other corrosive substances is common. Furthermore, PDCPD exhibits remarkable dimensional stability, meaning it maintains its shape and size under different temperature variations. This property ensures that PDCPD components retain their structural integrity, even in extreme conditions. In addition to its physical properties, PDCPD is highly moldable. This allows for complex and precise designs, resulting in components with tight tolerances and excellent surface finish. The moldability of PDCPD not only enhances the aesthetic appeal of your products but also contributes to their long-lasting durability. Overall, incorporating PDCPD new materials into your product manufacturing process can significantly improve the durability, longevity, and performance of your final products. Whether it is for automotive, construction, or other industrial applications, PDCPD offers a reliable solution to enhance the durability of your components.   Want to know more, please click:https://www.cattelanpdcpd.com

PDCPD, as a new type of material, is a polymer with a certain degree of cross-linking formed by organometallic-catalyzed polymerization of dicyclopentadiene. And with mechanical properties similar to those of thermoplastic engineering plastics, it is an excellent material with high strength and high toughness. This material also embodies the full application in the medical field, according to the demand for medical equipment will increase dramatically. And the traditional medical equipment manufacturing technology is backward, the materials used in the equipment are mostly stainless steel, heavy mass, easy to conduct heat, poor structural accuracy, thus limiting the development of high-quality medical equipment. Due to the emergence of PDCPD new materials, and can be produced in light weight, large volume, spatial structure of the accurate medical equipment, these products have low thermal conductivity, high electrical insulation, and in the addition of a certain flame retardant, but also to meet the national flame retardant requirements for indoor plastics. Based on the above excellent characteristics, PDCPD new materials can provide a guarantee for the innovative development of medical equipment.  

Mold is an important hardware in DCPD-RIM process, many products have problems because of the mold! Jiangsu JiYuan and XuZhou LongPuDa companies in order to better use the alliance materials, changed over 20sets of the molds after used the US’S materials, those molds that originally designed according to TELENE1650 materials. Shuangyi technology all according to the domestic material (Our PDCPD materials) to design the molds, the quality of these companies rose several steps!   Many designers do not pay attention to the treatment of the inner runner, the mold does not have a rigorous inspection in the factory! Because the materials in the mold flow and beating state directly affects the product quality, different viscosity of the material beating state is different, the mold runner design is also different.    

July 19, “2024 Hainan Free Trade Port Danyang Economic Circle petrochemical new materials industry investment promotion meeting” was held in Ningbo City, Zhejiang Province. The promotion will be hosted by the Management Committee of Yangpu Economic Development Zone, Hainan Province petrochemical new materials academician workstation, Danzhou City Science and Technology and Industrial Information Technology Bureau, Yangpu Economic Development Zone Investment Promotion Bureau, Yangpu International Investment Consulting Company Limited, China Chemical Industry Economic and Technological Development Center and the China Petroleum and Chemical Industry Federation of Chemical Parks Working Committee, and get the full support of the China Petroleum and Chemical Industry Federation. The event was jointly organized by China Chemical Industry Economic and Technical Development Center and China Petroleum and Chemical Industry Federation Chemical Park Working Committee.   The petrochemical industry will be low-carbon development as an important task for the development of the industry, from the optimization of the scale and layout of production capacity, increase backward production capacity elimination, strict project access, guide enterprises to change the way of energy use, optimize the product structure and so on to build a low-carbon development system. For the path of low-carbon development of the petrochemical industry, it can be implemented in several aspects, such as low-carbon raw materials, low-carbon process, low-carbon products, and low-carbon industrial organization.     Our new material PDCPD team are honored to participate in this meeting. https:// www.cattelanpdcpd.com  

The use of a tough thermoset polydicyclopentadiene (PDCPD) as a matrix material for composites was explored. A PDCPD–glass fibre composite and an equivalent epoxy composite were compared. Fibre–matrix adhesion quality was assessed by transverse bending tests. The materials were subjected to compression tests, impact tests, static tensile tests and tensile fatigue tests. The results indicate that the tough behaviour of the PDCPD matrix markedly influences the composite damage resistance. The size of the impact damage in the PDCPD composite was half of that in the epoxy composite. The tensile tests indicated no significant difference in tensile strength, but the damage before failure was found to be much more severe in the epoxy samples. The fatigue results showed a much lower variation in fatigue life for the PDCPD material than for the epoxy material, as well as clear differences in damage development for the two materials. Current areas of applications for PDCPD include large to very large parts often used in harsh environments, for example body panels for agricultural and construction equipment, trucks and buses. In these applications, the high toughness, that is retained at low temperatures, is a major advantage. Several other industries use PDCPD for its chemical resistance (marine applications and in industries like chlor-alkali). Research on polydicyclopentadiene has shown that the good strength and elongation properties are retained at cryogenic temperatures. This makes PDCPD an excellent neat material and polymer matrix for composites in cryogenic applications . PDCPD is an interesting material for use in composites: thanks to the very low viscosity, DCPD formulations offer fast and efficient fibre wetting within a short time period. Thanks to the tuneable nature of the metathesis catalysts, DCPD is suitable for very fast processing (fast RTM) or for showing extended working life at room temperature, with thermal triggering on demand. Typical cycle times for DCPD RIM are around 5 min. In contrast, epoxy resins showing an improved toughness are typically by far more viscous and difficult to process. Also, the chemical nature of PDCPD makes it resistant towards hot, wet and corrosive environments. Literature data demonstrates that PDCPD/fibreglass composites exhibit exceptional resistance to hot wet environments, superior to epoxy/fibreglass composites tested in the same conditions . These characteristics make PDCPD composites better-suited to applications in harsh environments, such as wind energy structures, offshore oil platforms, and both land and marine.    

Polydicyclopentadiene (PDCPD) is a thermosetting polymer that has been used in various industries, including aerospace, for the manufacturing of certain components, including airdrop boxes. PDCPD resin is known for its high strength-to-weight ratio, excellent impact resistance, and dimensional stability. These properties make it suitable for applications where lightweight yet durable materials are required. In the context of aerospace, airdrop boxes made of PDCPD raw material can be used for transporting supplies, equipment, or other items by air. They are designed to withstand the stresses and forces associated with airdrop operations, including impact forces upon landing. The use of PDCPD in airdrop boxes helps ensure that the contents are protected during the airdrop process.     PDCPD has several advantages in aerospace applications. It has good chemical resistance, which allows it to withstand exposure to various fluids and environmental conditions commonly encountered in aerospace operations. Additionally, PDCPD can be molded into complex shapes, allowing for customization and optimization of the airdrop box design to meet specific requirements.

In recent years, advancements in science have revolutionized manufacturing of safety gear. Among these innovations,polydicyclopentene has as a highly promising for the production of helmets. PDCPD offers unique combination of strength, and lightweight properties make it an ideal for ensuring head protection various industries. PDCPD material helmets represent a significant advancement in safety gear, offering excellent impact protection, lightweight design, durability, and enhanced customization options. The market research surrounding PDCPD material helmets indicates a growing demand across industries where head protection is essential. As innovation and research continue, we can expect PDCPD material helmets to play a vital role in ensuring the safety and well-being of workers, athletes, and individuals engaging in various activities. If want to know more about PDCPD materials, please visit and contact us: https://www.cattelanpdcpd.com  

Measuring the quality of PDCPD formulation material is actually a matter of how high or low the core ring-opening translocation polymerization conversion rate is in the reaction conversion rate of the product after injection molding, not the ionic polymerization rate or the addition polymerization rate or others!   In terms of molecular structure, what is the proportion of three-dimensional mesh structure? In terms of composite materials, what is the proportion of interpenetrating polymer network structure? From the formula, the performance indicators have not realized a regulation, balance and complementary! There is no perfect formula, just say what you just need?   Some people want a small odor, some people want good toughness, some want a long active shelf life, some want good rigidity, some want good dimensional stability, some want a high pass rate, some want good repeatability, some want small data dispersion, some people want thermal deformation or deformation is small, want to be good demolding, want to have no obvious air bubbles and pinholes, and want to have a high surface finish! What are the scenarios and immediate needs for products?   Each company’s materials have actually their own strengths, depending on whose strengths more, who is more suitable for you . PDCPD materials from China are cost-effective and guaranteed supply !  https://www.cattelanpdcpd.com

PDCPD has excellent corrosion resistance, especially acid and alkali resistance. Acid and alkali resistance exceeds all resin base FRP composites, but can be damaged by some strong organic solvents.   Data Reference:

Polydicyclopentadiene (PDCPD) is a thermosetting polymer material with a network crosslinked structure based on a dicyclopentadiene backbone. PDCPD materials have excellent and balanced physical properties, with almost no physical shortcomings. The deformation under force is mainly elastic. Especially in the dynamic load, impact load and the existence of temperature-variable stress components, with other polymer composites unparalleled comprehensive performance advantages, long service life, the use of cost-effective. From the smell of the cured products can basically determine the degree of curing high and low, but also to determine the basic mechanical properties of the high and low. PDCPD Material Properties Valune (Representative Values)

Impact resistance and stiffness:         PDCPD belongs to the ductile structural material which is mainly elastic deformation. It has a low E-value (high in engineering plastics), and the use of additives to increase the E-value of the material increases the stiffness, and the impact performance will be greatly reduced. Structural design to improve the I value (moment of inertia) or and other materials composite method to increase the stiffness.   Flame retardant performance and environmental protection:        PDCPD material itself does not contain internationally banned substances; catalyst with catalytic polymerisation and high-temperature catalytic carbonation flame retardant dual function; high flame retardancy means that it can not be recycled and can only be landfilled; PDCPD has the best environmental protection recycling methods;   Dimensional accuracy and mould costs:         Products with high dimensional requirements are generally moulded in pairs; DCPD-RIM moulds are the most convenient moulds for pairs moulding; the cost of moulds for a single product is also the lowest according to the maximum usage of moulds (including hand-laid FRP) Price and use of cost-effective:          PDCPD has unparalleled advantages over other materials in terms of impact resistance, dynamic loads, and the presence of temperature-variable stresses, with a long service life and a very high price/performance ratio.