Engineering Flexibility with Controlled Polarity

Transform your polymer applications with our Ethylene Vinyl Acetate portfolio, where controlled vinyl acetate incorporation creates a perfect balance of flexibility and performance.

Understanding EVA (Ethylene Vinyl Acetate)

Ethylene Vinyl Acetate represents an elegant example of copolymer engineering, where vinyl acetate (VA) units are precisely incorporated into the polyethylene backbone. The VA content acts like molecular softeners along the polymer chain – imagine placing small cushions at regular intervals along a rigid rope. As we increase the VA content, the polymer becomes increasingly flexible and transparent, while maintaining its toughness. This unique structure allows us to create grades ranging from thermoplastic to rubber-like properties.

EVA Classifications

Low VA Grades (3-12% VA Content)

Our low VA content portfolio features melt flow indices (MFI) from 0.5 to 5 g/10min, designed for applications requiring moderate flexibility with excellent strength. These grades behave similarly to enhanced polyethylene, offering improved clarity and flexibility while maintaining good heat sealability. The lower VA content ensures excellent processability in extrusion and injection molding processes, making them ideal for film applications where clarity meets toughness.

Medium VA Grades (15-20% VA Content)

These versatile grades showcase MFI ranges from 2 to 8 g/10min, offering increased flexibility and transparency. At this VA level, the polymer exhibits excellent low-temperature performance while maintaining good mechanical properties. Their enhanced elasticity makes them perfect for footwear foams and adhesive applications, where resilience meets processability.

High VA Grades (25-40% VA Content)

Our high VA content grades feature MFI ranges from 3 to 15 g/10min, delivering maximum flexibility and optical clarity. These grades approach rubber-like properties while maintaining thermoplastic processability. Their exceptional softness and resilience make them ideal for specialized applications like solar encapsulation films and high-performance wire and cable compounds.

Hot Melt Adhesive Grades

Specifically engineered for adhesive applications, these grades offer MFI ranges from 150 to 500 g/10min with varying VA contents (18-28%). Their carefully controlled molecular weight and VA distribution ensure excellent adhesion to various substrates while maintaining optimal melt viscosity for application. Think of them as molecular bridges, capable of bonding different materials through their balanced polar and non-polar nature.

Applications in Modern Industry

The solar energy industry has been revolutionized by EVA's unique properties, particularly in photovoltaic module manufacturing. High VA grades create perfect encapsulation films that protect solar cells while maximizing light transmission. These films must maintain their properties for decades under intense UV exposure and varying weather conditions – a challenge that EVA meets exceptionally well.

In the footwear industry, EVA has transformed the production of comfortable, durable soles and midsoles. Through controlled foaming processes, medium VA grades create lightweight yet resilient materials that provide excellent cushioning and impact absorption. The material's ability to be colored and modified with various additives allows for creative design possibilities while maintaining functional performance.

The packaging sector leverages EVA's versatility across multiple applications. Low VA grades enhance the performance of packaging films, providing improved clarity and sealing characteristics compared to standard polyethylene. The material's excellent low-temperature performance ensures package integrity even in cold storage applications.

The Foundation of Modern Manufacturing and Construction

Transform your industrial applications with our comprehensive range of PVC grades, engineered to meet diverse manufacturing needs.

Understanding PVC (Polyvinyl Chloride)

Polyvinyl Chloride, popularly known as PVC, has revolutionized the manufacturing and construction industries through its exceptional versatility and cost-effectiveness. As one of the most widely produced plastics globally, PVC's adaptability stems from its unique molecular structure and our ability to modify its properties through various polymerisation techniques.

PVC Classifications

Suspension PVC

The backbone of industrial PVC production, suspension PVC is categorized by its K-value, a measure that indicates the polymer's molecular weight and directly influences its processing characteristics and end-use properties.

Low K-value PVC (K-value 57-64) offers excellent flow properties and is perfect for intricate moldings and precise extrusions. Think of it as the fine-grain flour of the PVC world – ideal for detailed work and precise applications. These grades excel in creating window profiles, electrical conduits, and rigid films.

Medium K-value PVC (K-value 65-69) strikes a balance between processability and strength, making it the workhorse of the PVC industry. Like all-purpose flour in baking, it's versatile enough for most applications, from pipes and fittings to various injection molded products.

High K-value PVC (K-value 70-74) provides superior mechanical strength and impact resistance. Consider it the heavyweight champion of PVC grades, ideal for applications demanding exceptional durability like pressure pipes, large-diameter drainage systems, and tough industrial components.

Emulsion/Paste PVC

Emulsion PVC, also known as paste PVC, represents a specialized category designed for unique applications. Through a distinct polymerization process, these grades transform into fine particles that, when mixed with plasticizers, create a paste-like consistency. This special grade opens up a world of possibilities in coating applications, much like how a master painter uses different consistencies of paint for various effects.

Applications in Modern Industry

The versatility of PVC grades has written countless success stories across industries. In construction, suspension PVC grades have transformed plumbing systems, making them more durable and cost-effective than traditional materials. A typical residential building might utilize various K-value grades – from low K-value window profiles that ensure precise fitting to high K-value drainage pipes that withstand heavy loads and constant use.

In the automotive sector, paste PVC has revolutionized underbody coating and interior finishing. Car manufacturers rely on its unique properties to create durable, aesthetically pleasing surfaces that protect vehicles while enhancing their appeal. The same grade finds its way into fashion through artificial leather production, demonstrating PVC's remarkable range of applications.

Medical equipment manufacturers particularly value specific grades of suspension PVC for their clarity and biocompatibility. From blood bags to clear tubing, these grades ensure reliable healthcare delivery while meeting stringent safety standards.

Engineering Strength into Everyday Solutions

Transform your manufacturing excellence with our High-Density Polyethylene grades, engineered to deliver superior strength and versatility across diverse applications.

Understanding HDPE (High-Density Polyethylene)

High-Density Polyethylene stands as a testament to advanced polymer engineering, characterized by its linear molecular structure with minimal branching. This unique molecular architecture results in higher density, creating a polymer that combines exceptional strength with remarkable processability. Unlike its lower-density cousins, HDPE's tightly packed molecular chains provide enhanced mechanical properties while maintaining excellent chemical resistance.

HDPE Classifications

Blow Molding Grades

Our blow molding HDPE grades span MFI ranges from 0.2 to 0.8 g/10min, carefully engineered for optimal parison formation and consistent wall thickness distribution. The lower MFI variants excel in large container manufacturing, while the higher end serves smaller packaging needs. Each grade ensures perfect balance between melt strength and environmental stress crack resistance (ESCR), crucial for containers holding various chemicals and household products.

Injection Molding Grades

Designed for efficiency and precision, our injection molding grades feature MFI ranges from 2 to 20 g/10min. The higher flow grades (MFI 8-20) excel in thin-wall applications and intricate parts, while medium flow grades (MFI 2-8) provide enhanced mechanical properties for durable goods. These grades offer excellent dimensional stability combined with superior surface finish.

Pipe Grades (PE63, PE80, PE100)

Our pipe grade classifications follow international standards based on Minimum Required Strength (MRS). PE63 grades serve basic water supply needs, PE80 offers enhanced pressure resistance, while PE100 represents the pinnacle of pipe grade technology with exceptional long-term strength. All grades feature MFI ranges between 0.2 to 0.5 g/10min, ensuring optimal extrusion characteristics and weld ability.

Film Grades

Specialized film grades with MFI ranges of 0.05 to 0.15 g/10min deliver exceptional strength and process stability for high-speed film production. These grades incorporate precise levels of antioxidants and processing aids to ensure trouble-free production of thin yet strong films, ideal for heavy-duty bags and industrial packaging.

Raffia Grades

Our raffia grades, featuring MFI ranges from 0.3 to 3.0 g/10min, are engineered for high-speed tape extrusion and weaving operations. These grades provide the perfect balance of drawability and tensile strength, essential for producing robust woven sacks and industrial fabrics.

Applications in Modern Industry

HDPE's versatility shines across numerous industrial applications. In the packaging sector, blow molding grades create everything from milk bottles to industrial chemical containers. The material's excellent ESCR properties ensure product integrity even with aggressive contents, while its natural translucency allows for creative design possibilities.

The pipe industry relies heavily on HDPE's superior properties. PE100 pipes now carry water and gas across continents, replacing traditional materials with their superior flexibility and corrosion resistance. Modern infrastructure development increasingly depends on these grades for their exceptional long-term performance and ease of installation.

Film grade HDPE has revolutionized the packaging industry, particularly in heavy-duty applications. These films combine incredible strength with minimal material usage, creating sustainable packaging solutions for everything from construction materials to agricultural products. The material's excellent moisture barrier properties make it indispensable in protecting goods throughout the supply chain.

The Versatile Polymer for Modern Manufacturing

Transform your manufacturing capabilities with our comprehensive range of Linear Low-Density Polyethylene, designed to meet diverse processing and application needs.

Understanding LLDPE (Linear Low-Density Polyethylene)

LLDPE Classifications

Injection Moulding Grades

Our injection moulding grades of LLDPE feature carefully controlled Melt Flow Index (MFI) ranges from 20 to 50 g/10min, offering exceptional flowability for complex moulding operations. These grades ensure perfect balance between processing ease and product durability. The higher MFI variants excel in producing intricate parts with excellent surface finish, while maintaining dimensional stability and impact resistance.

Film Grades (Slip and Non-Slip)

Film manufacturing demands specialized LLDPE grades with precise slip properties. Our slip grades, incorporated with slip additives, offer MFI ranges between 2 to 4 g/10min, ensuring smooth processing and optimal coefficient of friction for easy handling in packaging lines. The non-slip variants, with similar MFI ranges, provide controlled friction properties crucial for stack stability and secure packaging applications.

Lamination Grades

Engineered specifically for multi-layer structures, our lamination grades feature MFI ranges from 3 to 8 g/10min, offering superior adhesion properties and excellent thermal stability during the lamination process. These grades ensure strong interlayer bonding while maintaining clarity and structural integrity in the final product.

Rotational Moulding Grades

Our rotomoulding grades, with MFI ranges typically between 3 to 7 g/10min, are designed for excellent powder flow and uniform wall thickness distribution. These specialized grades ensure optimal fusion during the molding cycle, resulting in products with exceptional impact strength and stress crack resistance.

Applications in Modern Industry

The diverse range of LLDPE grades has revolutionized manufacturing processes across industries. In the packaging sector, film grade LLDPE creates everything from crystal-clear food wrap to robust industrial packaging. The precise control of slip properties ensures that films perform perfectly in high-speed packaging lines while maintaining their protective properties.

Injection moulding grades have transformed the production of consumer goods and industrial components. Manufacturers can now create complex parts with excellent surface finish and dimensional stability, all while maintaining the inherent toughness that LLDPE provides. From household containers to industrial parts, these grades deliver consistency in both processing and performance.

The lamination grades have become indispensable in the flexible packaging industry, particularly in food packaging applications. Their superior bonding properties enable the creation of multi-layer structures that provide enhanced barrier properties and product protection. These grades form the backbone of modern packaging solutions, from snack food packages to industrial protective wraps.

Rotational moulding grades have carved their niche in large hollow parts manufacturing. From water tanks to industrial containers, these grades ensure uniform wall thickness and excellent impact resistance. Their superior powder flow characteristics and consistent fusion behavior make them ideal for producing large, durable products that maintain their properties across varying environmental conditions.

Pioneering Excellence in Film and Flexible Applications

Transform your manufacturing capabilities with our Low-Density Polyethylene grades, where versatility meets processing excellence in creating flexible solutions for modern industry.

Understanding LDPE (Low-Density Polyethylene)

Low-Density Polyethylene represents one of the most versatile polymers in the plastics family, distinguished by its unique branched molecular structure. This branching creates a polymer with remarkable flexibility and processing ease, making it the preferred choice for film and coating applications. The polymer's branched architecture, like a tree with many branches, provides excellent melt strength and processing characteristics that set it apart in the industry.

LDPE Classifications

Film Grades

At the heart of LDPE applications are our film grades, carefully engineered with MFI ranges from 0.3 to 4.0 g/10min. The lower MFI grades (0.3-1.0) excel in blown film applications, providing the exceptional melt strength needed for stable bubble formation and superior optical properties. Our medium MFI film grades (1.0-2.0) offer balanced properties for general-purpose packaging, while higher MFI variants (2.0-4.0) ensure excellent heat sealing in specialized packaging applications.

Coating Grades

Our coating grade LDPE portfolio features MFI ranges from 3.0 to 8.0 g/10min, specifically designed for extrusion coating and lamination processes. These grades provide outstanding adhesion to various substrates while maintaining excellent drawdown capabilities. The higher melt index ensures smooth, uniform coating layers, critical in paper and aluminum foil lamination applications.

Wire and Cable Grades

Specialized wire and cable grades, with MFI ranges typically between 0.2 to 2.0 g/10min, offer superior electrical properties and excellent processing characteristics. These grades incorporate carefully selected additives to ensure long-term stability and insulation properties, making them ideal for both power and telecommunications cable applications.

Masterbatch Base Grades

Our masterbatch base grades, featuring MFI ranges from 4.0 to 20 g/10min, serve as ideal carriers for color and additive concentrates. These high-flow grades ensure excellent pigment dispersion and compatibility with various polymer systems, crucial for achieving consistent color and additive distribution in final products.

Applications in Modern Industry

The versatility of LDPE has written countless success stories across packaging and industrial applications. In the packaging sector, film grade LDPE creates everything from crystal-clear shrink films to robust heavy-duty bags. The material's excellent optical properties combine with good seal strength to protect and present products attractively, while its processing ease ensures efficient production runs.

Extrusion coating grades have revolutionized the packaging industry, particularly in food packaging applications. Picture a milk carton – its paper substrate is typically coated with LDPE to provide moisture barrier and heat sealing properties. This same technology extends to various flexible packaging applications, from snack food packets to industrial protective wrapping.

The wire and cable industry relies heavily on LDPE's excellent electrical properties and processing characteristics. From household wiring to underground cables, LDPE insulation provides reliable performance under various environmental conditions. Its combination of flexibility and durability ensures long-term cable protection while maintaining ease of installation.

Engineering Clarity with Molecular Precision

Transform your packaging and fibre applications with our Polyethylene Terephthalate portfolio, where exceptional clarity meets processing versatility in a sustainable polymer solution.

Understanding PET (Polyethylene Terephthalate)

Polyethylene Terephthalate represents an engineering marvel in polymer science, created through the precise condensation polymerisation of terephthalic acid and ethylene glycol. This unique molecular structure features rigid aromatic rings connected by flexible ester linkages, much like a string of pearls where each pearl (the aromatic ring) provides strength while the string (ester linkages) allows for precise alignment. When processed correctly, these molecules can arrange themselves into highly ordered crystalline regions or remain in an amorphous state, giving PET its remarkable versatility in both fiber and packaging applications.

PET Classifications

Bottle Grade Resins

General Purpose Bottle Grade

Our standard bottle grade PET features intrinsic viscosity (IV) ranges from 0.76 to 0.82 dL/g, optimized for conventional stretch blow molding processes. These grades provide the perfect balance of processability and container performance, ensuring excellent clarity and strength in beverage bottles while maintaining high production efficiency. The controlled crystallization kinetics enable wide processing windows in both preform injection and bottle blowing stages.

Hot-Fill Bottle Grade

Engineered for high-temperature applications, these grades offer IV ranges from 0.82 to 0.85 dL/g. Their enhanced crystallization characteristics provide superior heat resistance up to 85°C, making them ideal for hot-fill beverages and pasteurized products. The carefully controlled chain structure ensures excellent clarity even with higher crystallinity levels.

Fast Reheat Grades

These specialized grades incorporate infrared-absorbing additives while maintaining IV ranges of 0.76 to 0.82 dL/g. Their enhanced thermal absorption properties enable faster preform heating in the blow molding process, reducing energy consumption and increasing production efficiency without compromising bottle properties.

Fiber Grade Resins

Textile Fiber Grade

Our textile grades showcase IV ranges from 0.62 to 0.64 dL/g, specifically engineered for high-speed fiber spinning. These grades provide excellent uniformity in fiber production while ensuring the perfect balance of strength and elongation properties required for textile applications. Their controlled crystallization behavior supports efficient drawing and texturing processes.

Technical Fiber Grade

Designed for industrial applications, these grades feature higher IV ranges from 0.65 to 0.70 dL/g. The enhanced molecular weight provides superior strength and thermal stability, crucial for technical applications like tire cord and industrial belting. Their carefully controlled carboxyl end group content ensures excellent hydrolytic stability.

Film Grade

Our film grade PET offers IV ranges from 0.63 to 0.65 dL/g, optimized for both thin and thick film applications. These grades provide exceptional clarity and surface smoothness while maintaining excellent mechanical properties. Their controlled crystallization behavior ensures optimal processing in both cast and biaxially oriented film production.

Applications in Modern Industry

In the beverage packaging sector, PET has revolutionized how we package and transport liquids. From carbonated soft drinks to water bottles, PET provides the perfect combination of clarity, strength, and barrier properties. The material's ability to be processed into lightweight yet strong containers has transformed the beverage industry, reducing transportation costs while maintaining product integrity.

The textile industry relies heavily on PET fiber (polyester) for both fashion and technical applications. In apparel, PET creates everything from luxurious fabrics to high-performance sportswear. The material's excellent dimensional stability and durability, combined with its ability to accept dyes brilliantly, make it indispensable in modern textile manufacturing.

In technical applications, PET's high strength-to-weight ratio and dimensional stability create ideal solutions for industrial products. From tire reinforcement to conveyor belts, PET's combination of mechanical properties and chemical resistance ensures reliable performance in demanding environments.

The Next Generation of Polyethylene Performance

Transform your film applications with our Metallocene Linear Low-Density Polyethylene, where cutting-edge catalyst technology meets exceptional polymer engineering.

Understanding mLLDPE (Metallocene Linear Low-Density Polyethylene)

Metallocene LLDPE represents a remarkable advancement in polyethylene technology, achieved through revolutionary metallocene catalyst systems. Unlike traditional Ziegler-Natta catalysts, metallocene catalysts enable unprecedented control over polymer architecture, creating molecules with extraordinarily uniform comonomer distribution. This molecular precision, much like a master craftsman's attention to detail, results in enhanced performance across all key properties.

mLLDPE Classifications

Super Hexene Film Grades

Our super hexene grades showcase MFI ranges from 0.5 to 2.0 g/10min, engineered specifically for high-performance blown film applications. These grades demonstrate exceptional dart impact strength and tear resistance, surpassing conventional LLDPE by up to 40%. The uniform molecular structure ensures outstanding optical properties, making these grades ideal for premium packaging applications where clarity meets strength.

Cast Film Grades

Designed for high-speed cast film lines, these specialized grades feature MFI ranges from 2.0 to 4.0 g/10min. Their unique molecular architecture provides excellent drawdown capability while maintaining superior mechanical properties. These grades excel in stretch film applications, offering enhanced load holding force and exceptional clarity – crucial for secure packaging in logistics operations.

Blend Modifier Grades

Our modifier grades, with MFI ranges from 1.0 to 5.0 g/10min, serve as performance-enhancing additives in polyethylene blends. When used as impact modifiers, these grades significantly improve the toughness and processability of rigid polyethylene products. Their uniform composition ensures excellent compatibility and consistent property enhancement across various blend ratios.

Specialty Packaging Grades

These premium grades, featuring MFI ranges from 0.8 to 3.0 g/10min, are engineered for demanding packaging applications. Their enhanced puncture resistance and superior seal strength make them ideal for heavy-duty packaging and specialty films where conventional materials fall short. These grades often find use in medical packaging and food contact applications requiring exceptional quality standards.

Applications in Modern Industry

The impact of mLLDPE technology has revolutionized the flexible packaging industry. In food packaging, these grades create films that combine exceptional clarity with superior strength, protecting contents while enhancing shelf appeal. The improved puncture and tear resistance ensure package integrity throughout the distribution chain, reducing waste and enhancing sustainability.

The stretch film sector has been transformed by mLLDPE's unique properties. In modern warehouses and logistics centers, stretch films made from these grades provide superior load retention with less material, offering both economic and environmental benefits. The enhanced elastic recovery ensures tight, secure wrapping even under challenging conditions.

Medical packaging represents another crucial application where mLLDPE excels. The material's exceptional clarity, strength, and consistent sealing properties make it ideal for sterile packaging applications. The superior puncture resistance provides added security for sharp medical items, while the excellent optical properties allow easy visual inspection of packaged contents.

Engineering Versatility through Controlled Structure

Transform your manufacturing capabilities with our Polypropylene portfolio, where molecular architecture meets application versatility in creating tailored polymer solutions.

Understanding PP (Polypropylene)

Polypropylene represents a triumph in stereoregular polymerization, where precise catalyst control creates perfectly aligned methyl groups along the polymer backbone. This molecular orchestration allows us to control the polymer's crystallinity and properties through three distinct stereochemical arrangements: isotactic, where methyl groups align uniformly on one side; syndiotactic, with alternating positions; and atactic, featuring random orientation. Think of it as arranging building blocks – the way we position each block determines the entire structure's properties.

PP Classifications

Homopolymer Grades

Injection Molding Grades

Our injection molding portfolio spans MFI ranges from 2 to 70 g/10min. The lower MFI grades (2-8) excel in structural applications demanding high stiffness, while medium-flow grades (12-25) offer balanced properties for general-purpose molding. High-flow grades (30-70) enable ultra-fast cycling in thin-wall packaging applications, where every second counts in production efficiency.

Fiber Grades

Engineered specifically for fiber production, these grades feature MFI ranges from 20 to 35 g/10min. Their carefully controlled molecular weight distribution ensures excellent spinnability and drawability, crucial for producing everything from continuous filaments to spunbond nonwovens. The enhanced crystallization kinetics support high-speed fiber production while maintaining consistent fiber properties.

Raffia Grades

Our raffia grades showcase MFI ranges from 2 to 5 g/10min, optimized for high-speed tape extrusion. These grades combine excellent drawability with superior tensile strength, making them ideal for woven bags and industrial fabrics. Their enhanced UV stability packages ensure long-term outdoor performance.

Impact Copolymer Grades

High Impact Grades

Designed for demanding applications, these grades incorporate ethylene-propylene rubber phases within a homopolymer matrix, featuring MFI ranges from 4 to 25 g/10min. The rubber content varies from 10% to 25%, providing exceptional impact resistance even at low temperatures. These grades excel in automotive applications and industrial containers where toughness is paramount.

Clear Impact Grades

Our innovative clear impact grades achieve transparency through careful control of rubber particle size and crystallinity, with MFI ranges from 8 to 20 g/10min. They offer an excellent balance of clarity and impact resistance, making them ideal for visual packaging applications requiring toughness.

Random Copolymer Grades

Clarity Grades

These specialized grades incorporate ethylene units randomly within the PP chain, featuring MFI ranges from 2 to 35 g/10min. The interrupted crystallinity results in superior clarity and lower melting points, perfect for clear packaging and medical applications where aesthetics meet functionality.

Soft Touch Grades

Engineered for enhanced tactile properties, these grades offer higher ethylene content with MFI ranges from 8 to 25 g/10min. They provide a unique combination of softness and clarity while maintaining good heat resistance, ideal for consumer goods and specialty packaging.

Applications in Modern Industry

In the packaging sector, PP grades create everything from crystal-clear food containers to robust industrial packaging. The material's excellent balance of properties – from heat resistance to chemical stability – makes it ideal for hot-fill applications and microwaveable containers. The availability of clarified random copolymers has revolutionized clear packaging, offering glass-like transparency with the advantages of lightweight plastic.

The automotive industry relies heavily on both homopolymer and impact copolymer grades. From interior trim to under-hood components, PP provides the perfect balance of properties and processability. Impact grades ensure bumper components maintain toughness in cold weather, while high-flow homopolymers create intricate interior parts with excellent surface finish.

In the medical field, PP's exceptional purity and stability make it the material of choice for syringes, diagnostic devices, and medical packaging. Random copolymer grades provide the clarity needed for visual inspection, while their enhanced sterilization resistance ensures product safety and reliability.

The Safe and Sustainable Plasticiser Choice

Transform your PVC applications with Dioctyl Terephthalate (DOTP), the modern, eco-friendly plasticiser that delivers superior performance while meeting global safety standards.

Understanding DOTP

DOTP represents the next generation of plasticizers, offering an environmentally conscious alternative to traditional options. This non-phthalate plasticizer combines excellent compatibility with PVC while meeting strict environmental and safety regulations worldwide. Its unique molecular structure provides outstanding resistance to extraction and migration, making it ideal for applications requiring stringent safety standards. The material's exceptional stability ensures consistent performance throughout the product lifecycle, while its low volatility contributes to longer-lasting flexibility in end products.

DOTP Classifications

Standard Grade

Our standard DOTP grade offers excellent overall performance with minimum 99.5% purity. This grade provides ideal plasticity for common PVC applications while maintaining superior environmental credentials. Perfect for general-purpose products requiring reliable performance and regulatory compliance.

Premium Grade

Premium grade DOTP, with 99.8% minimum purity, delivers exceptional color stability and minimal volatility. Engineered for demanding applications where premium quality is essential, such as medical devices, toys, and food contact materials. This grade undergoes additional purification steps to ensure the highest quality standards.

Food Contact Grade

Specially formulated to meet global food contact regulations, our food-grade DOTP ensures safe use in food packaging and handling equipment. This grade undergoes rigorous testing and quality control to meet international food safety standards while maintaining excellent plasticizing properties.

Low Volatility Grade

Designed specifically for high-temperature applications, our low volatility grade offers enhanced thermal stability and reduced emissions. This grade is ideal for automotive interiors, wire insulation, and other applications where heat resistance is crucial.

Applications in Modern Industry

DOTP has revolutionized various industrial sectors with its versatile performance. In the automotive industry, it serves as the preferred plasticizer for interior components, offering excellent UV stability and low fogging characteristics. From dashboard covers to door panels, DOTP ensures long-lasting flexibility while meeting strict automotive standards.

The flooring industry has embraced DOTP for its exceptional performance in PVC floor coverings. Its excellent migration resistance and durability make it perfect for both residential and commercial flooring applications, ensuring products maintain their properties throughout their service life.

Children's products and toys represent a key application area where DOTP's safety profile shines. Its non-phthalate nature makes it the ideal choice for manufacturers looking to meet global safety regulations while maintaining product quality and durability.

The medical sector increasingly relies on DOTP for various applications. From IV bags to medical tubing, its excellent biocompatibility and low extractability make it suitable for sensitive healthcare products while meeting stringent medical standards.

The Essential Plasticizer for Flexible PVC Solutions

Transform your PVC applications with Dioctyl Phthalate (DOP), the industry-standard plasticizer that brings optimal flexibility and durability to your plastic products.

Understanding DOP (Dioctyl Phthalate)

DOP, also known as DEHP (Di-2-ethylhexyl phthalate), stands as the most widely used plasticizer in the PVC industry. This clear, oily liquid works by positioning itself between PVC polymer chains, enhancing flexibility and processability. Its excellent compatibility with PVC and cost-effectiveness makes it the preferred choice for manufacturers seeking reliable plasticizing solutions. The material's low volatility ensures long-lasting flexibility in end products, while its excellent heat stability contributes to smooth processing.

DOP Classifications

General Purpose Grade

Our standard DOP grade offers excellent all-round performance with minimum 99.5% purity. This grade provides ideal plasticity for common PVC applications, featuring low volatility and excellent heat stability. Perfect for general-purpose PVC products requiring standard flexibility and durability.

Premium Grade

Premium grade DOP, with 99.8% minimum purity, delivers superior color stability and minimal volatility. This grade is specifically engineered for applications demanding highest quality standards, such as medical tubing and sensitive applications where exceptional clarity and durability are essential.

Technical Grade

Designed for industrial applications, our technical grade DOP maintains 99% minimum purity. This grade offers reliable performance in less demanding applications where slight color variation is acceptable, making it a cost-effective choice for industrial products.

Food Grade

Specially purified to meet strict food contact regulations, our food-grade DOP ensures safe use in food packaging applications. This grade undergoes additional quality controls and testing to meet international food safety standards.

Applications in Modern Industry

DOP's versatility shines across numerous industrial applications. In the cable industry, it serves as the primary plasticizer for creating flexible PVC cables and wires, ensuring long-term performance even under challenging conditions. The material's excellent electrical properties make it ideal for both power and communication cables.

The flooring sector extensively uses DOP in PVC floor coverings, where it provides the perfect balance of flexibility and wear resistance. From domestic vinyl flooring to commercial PVC tiles, DOP ensures products maintain their flexibility and appearance throughout their service life.

Medical applications rely on DOP's proven performance record. Blood bags, medical tubing, and various healthcare products benefit from its excellent compatibility with PVC and stability during sterilization processes. The material's low extraction characteristics make it suitable for these sensitive applications.

In artificial leather manufacturing, DOP plays a crucial role in achieving the right texture and flexibility. The material's ability to provide consistent plasticity helps manufacturers create leather-like products that maintain their properties over time.

Your Essential Fast-Fusing Plasticizer Solution

Enhance your PVC processing with DBP (Dibutyl Phthalate), the rapid-fusing plasticizer that delivers exceptional processing efficiency and product performance.

Understanding DBP (Dibutyl Phthalate)

Dibutyl Phthalate represents a crucial advancement in plasticizer technology, particularly known for its rapid fusion characteristics with PVC resins. Its molecular structure, featuring shorter carbon chains compared to other phthalates, enables quick incorporation into polymer matrices. This unique property results in faster processing times and excellent gelation characteristics, making it invaluable for manufacturers seeking efficient production cycles. The lower molecular weight of DBP also contributes to its superior solvating power, ensuring thorough and uniform distribution throughout the polymer matrix.

DBP Classifications

Standard Processing Grade

Our standard DBP grade excels in general PVC processing applications, offering the perfect balance between fusion speed and final product properties. This grade demonstrates exceptional compatibility with PVC resins, enabling rapid gelation and improved processing efficiency. The carefully controlled specifications ensure consistent performance across various processing conditions, making it ideal for manufacturers seeking reliable results.

Technical Grade

Engineered specifically for technical applications, this DBP grade meets stringent purity requirements. It delivers enhanced performance in specialized applications where precise control over physical properties is essential. The technical grade maintains strict quality parameters, ensuring optimal performance in critical applications where consistency is paramount.

Specialty Blending Grade

Developed for custom plasticizer blending applications, this grade of DBP works excellently as a secondary plasticizer. Its superior compatibility with other plasticizers allows manufacturers to create optimized blends that combine rapid fusion with specific performance characteristics. This grade particularly benefits applications requiring both quick processing and specialized end-product properties.

Applications in Modern Industry

DBP's versatility extends across numerous industrial sectors, each benefiting from its unique properties. In the adhesives industry, it serves as both a plasticizer and a processing aid, improving product consistency and performance. The rapid fusion characteristics make it particularly valuable in manufacturing processes where processing speed directly impacts productivity.

The printing ink sector relies heavily on DBP for its excellent solvating properties. When used in printing inks, DBP contributes to improved color development and ink stability, ensuring superior print quality and consistency. Its low viscosity and excellent compatibility with various resins make it an ideal choice for this demanding application.

In the coatings industry, DBP plays a crucial role in developing flexible finishes with excellent adhesion properties. Its incorporation in coating formulations helps achieve the desired balance between hardness and flexibility, resulting in durable and aesthetically pleasing surfaces. The material's ability to maintain its properties over time ensures long-lasting performance in various environmental conditions.

The nail polish industry showcases DBP's specialized applications, where it historically contributed to improved application properties and chip resistance. However, manufacturers should note current regulatory considerations and market preferences when selecting plasticizers for cosmetic applications.

Technical Note: As regulations regarding phthalate plasticizers continue to evolve, manufacturers should consult current guidelines and restrictions for specific applications, particularly in sensitive areas like consumer goods and food contact materials.

Engineering Precision Through Crystalline Perfection

Transform your engineering applications with our Polyoxymethylene portfolio, where dimensional stability meets exceptional wear resistance in a high-performance engineering thermoplastic.

Understanding POM (Polyoxymethylene/Acetal)

Polyoxymethylene represents engineering precision at the molecular level, built upon a backbone of perfectly aligned oxymethylene units. Like a well-organized crystal lattice, POM's highly regular structure creates exceptional dimensional stability and mechanical properties. Available in both homopolymer and copolymer variants, POM's unique molecular architecture delivers natural lubricity combined with outstanding wear resistance.

POM Classifications

Homopolymer Grades

Standard Flow Grades

Our standard homopolymer grades feature MFI ranges from 9 to 13 g/10min (190°C, 2.16kg), delivering excellent mechanical properties and thermal stability. These grades provide superior strength and stiffness, making them ideal for precision engineering components. Their high crystallinity ensures excellent wear resistance and low friction characteristics.

High Flow Grades

Engineered for complex or thin-wall applications, these grades offer MFI ranges from 14 to 27 g/10min. While maintaining core POM properties, they enable faster cycling and easier filling of intricate molds. Perfect for small, precise components where dimensional accuracy is crucial.

Low Friction Grades

Specially formulated with internal lubricants, these grades maintain MFI ranges from 10 to 15 g/10min while offering enhanced wear properties. The carefully selected additives reduce friction without compromising mechanical strength, ideal for moving parts and bearing applications.

Copolymer Grades

General Purpose Grades

Our copolymer portfolio features MFI ranges from 8 to 12 g/10min, offering enhanced thermal stability and chemical resistance compared to homopolymers. These grades provide excellent dimensional stability with improved resistance to hot water and basic environments.

Impact Modified Grades

Impact-enhanced grades combine MFI ranges from 6 to 10 g/10min with specially engineered modifiers. They deliver improved toughness while maintaining the essential characteristics of POM, perfect for applications requiring both precision and impact resistance.

UV Stabilized Grades

Designed for outdoor applications, these grades incorporate UV stabilizers while maintaining standard MFI ranges. They ensure long-term performance under exposure to sunlight and weather conditions, ideal for exterior automotive and construction applications.

Applications in Modern Industry

The automotive industry relies heavily on POM's unique property profile. From fuel system components to gear assemblies, POM provides the perfect combination of dimensional stability and wear resistance. Its natural lubricity makes it ideal for moving parts, while its excellent fuel resistance ensures long-term reliability in automotive systems.

In the consumer electronics sector, POM creates precision components that maintain tight tolerances throughout their lifetime. From smartphone internal components to laptop hinges, the material's dimensional stability and wear resistance ensure smooth operation and long-term reliability. Its electrical insulation properties and ability to maintain properties across varying temperatures make it invaluable in electronic applications.

The plumbing industry leverages POM's unique combination of properties to create reliable, long-lasting fittings and valves. The material's excellent water resistance and dimensional stability ensure consistent performance, while its natural lubricity facilitates smooth operation in moving parts. Both homopolymer and copolymer grades find extensive use in water handling systems, each chosen based on specific application requirements.

Engineered for Impact and Processing Excellence

Transform your manufacturing capabilities with our High Impact Polystyrene, where exceptional impact resistance meets superior processing characteristics in a cost-effective solution.

Understanding HIPS (High Impact Polystyrene)

High Impact Polystyrene represents a remarkable achievement in polymer engineering, created through the precise grafting of polybutadiene rubber within a polystyrene matrix. This unique molecular architecture creates a two-phase system where rubber particles are uniformly distributed throughout the rigid polystyrene backbone. Imagine a microscopic network where countless rubber particles act like tiny shock absorbers, dispersed perfectly within the crystal-clear polystyrene structure, providing both strength and processability.

HIPS Classifications

General Purpose Grades

Our general-purpose grades feature MFI ranges from 3 to 8 g/10min, delivering balanced performance for everyday applications. These grades serve as the foundation of our HIPS portfolio, offering excellent processability and consistent quality. The careful balance of rubber content ensures good impact strength while maintaining the superior flow characteristics that HIPS is known for.

High Flow Grades

Engineered specifically for thin-wall applications, our high-flow grades showcase MFI ranges from 8 to 12 g/10min. These grades excel in fast-cycle injection molding applications where quick mold filling is crucial. Despite their enhanced flow properties, they maintain respectable impact strength, making them ideal for disposable packaging and thin-walled containers.

Extra High Impact Grades

Our premium impact-resistant portfolio features carefully optimized rubber content with MFI ranges from 2 to 5 g/10min. These grades deliver exceptional toughness for demanding applications, achieving impact strengths up to 40% higher than general-purpose grades. The increased rubber content is precisely controlled to maintain good processability while maximizing impact resistance.

Sheet Extrusion Grades

Specially formulated for sheet manufacturing, these grades offer MFI ranges from 4 to 6 g/10min. Their unique formulation ensures excellent gauge control and surface finish in sheet extrusion processes. These grades combine good impact strength with superior thermoforming characteristics, making them perfect for packaging applications requiring both durability and aesthetic appeal.

Applications in Modern Industry

In the packaging industry, HIPS has revolutionized food packaging applications. Picture your local supermarket's dairy section – those yogurt containers and clear disposable cups likely showcase our HIPS grades at work. The material's excellent formability allows for intricate designs, while its impact resistance ensures product protection throughout the supply chain. The natural clarity of the polymer, combined with its ability to accept colors brilliantly, creates packaging that not only protects but also attracts consumers.

The appliance sector harnesses HIPS's unique properties in creating internal components and aesthetic parts. From refrigerator liners to air conditioner components, HIPS provides an excellent balance of properties. Its ease of processing allows manufacturers to create complex parts efficiently, while its impact resistance ensures durability in everyday use. The material's cost-effectiveness makes it particularly attractive for large appliance components where both performance and economics play crucial roles.

In the toy industry, HIPS creates safe, durable products that withstand the rigors of child's play. The material's excellent impact resistance prevents shattering, while its easy processing allows for detailed, colorful designs that capture children's imagination. From building blocks to outdoor toys, HIPS continues to be a preferred choice for toy manufacturers worldwide.

Engineering Clarity with Enhanced Heat Resistance

Transform your transparent plastic applications with our Styrene Acrylonitrile portfolio, where crystal clarity meets superior heat resistance in a versatile engineering polymer.

Understanding SAN (Styrene Acrylonitrile)

Styrene Acrylonitrile represents a perfect marriage between styrene's clarity and acrylonitrile's heat resistance. This copolymer achieves its exceptional properties through precisely controlled incorporation of acrylonitrile units within the polystyrene backbone. Think of it as reinforcing a clear glass structure with heat-resistant pillars – the acrylonitrile content enhances thermal and chemical resistance while maintaining the outstanding clarity of styrene.

SAN Classifications

General Purpose Grades

Our general-purpose portfolio features MFI ranges from 12 to 25 g/10min, delivering excellent balance between processability and mechanical properties. These grades provide superior clarity comparable to GPPS while offering significantly better heat resistance. Their consistent processing characteristics make them ideal for injection molding applications where clarity meets functionality.

High Heat Grades

Engineered for demanding thermal applications, these grades feature MFI ranges from 15 to 30 g/10min with optimized acrylonitrile content. They offer enhanced heat deflection temperatures up to 108°C, making them perfect for applications requiring both clarity and thermal stability. The carefully controlled molecular structure ensures excellent dimensional stability even at elevated temperatures.

Easy Flow Grades

Our high-flow variants showcase MFI ranges from 25 to 40 g/10min, specifically designed for thin-wall applications and complex moldings. These grades maintain the exceptional optical properties of SAN while offering enhanced processability, enabling faster cycle times and more intricate designs without compromising mechanical properties.

Food Contact Grades

Specially formulated to meet global food contact regulations, these grades offer MFI ranges from 15 to 30 g/10min. They combine SAN's inherent clarity and heat resistance with carefully selected additives and stabilizers that ensure long-term safety in food contact applications. Their enhanced chemical resistance makes them ideal for reusable food containers and kitchen appliances.

Applications in Modern Industry

In the household appliance sector, SAN has revolutionized the design of water filtration systems and small kitchen appliances. The material's clarity allows consumers to monitor water levels and food processing, while its superior heat resistance ensures durability in daily use. From coffee maker water reservoirs to food processor bowls, SAN provides the perfect balance of aesthetics and functionality.

The cosmetic packaging industry leverages SAN's exceptional properties to create premium packaging solutions. The material's glass-like clarity showcases product contents beautifully, while its chemical resistance protects against the various ingredients found in cosmetics. The enhanced heat resistance ensures package integrity during manufacturing and filling processes, where temporary exposure to elevated temperatures is common.

In kitchenware applications, SAN creates durable, attractive products that withstand the rigors of daily use. From measuring cups to serving ware, the material's combination of clarity, heat resistance, and durability makes it ideal for both household and commercial kitchen applications. The enhanced chemical resistance ensures products maintain their appearance even with frequent dishwasher cleaning.

The Crystal Clear Choice for Precision and Clarity

Transform your manufacturing possibilities with our General Purpose Polystyrene, where optical clarity meets dimensional precision in a versatile polymer solution.

Understanding GPPS (General Purpose Polystyrene)

General Purpose Polystyrene represents the purest form of styrenic polymers, characterized by its unique molecular architecture of linear polystyrene chains arranged in an amorphous structure. Think of GPPS as perfectly arranged glass beads – each polymer chain aligns precisely with its neighbors, creating a material that allows light to pass through with minimal interference. This molecular perfection results in the remarkable clarity and dimensional stability that makes GPPS indispensable in modern manufacturing.

GPPS Classifications

Extrusion Grades

Our extrusion portfolio features MFI ranges from 2 to 4 g/10min, meticulously engineered for sheet and profile applications. These grades excel in creating uniform sheets with exceptional clarity and surface gloss. Their carefully controlled molecular weight distribution ensures stable processing windows, making them ideal for continuous extrusion operations where consistency is paramount.

Injection Molding Grades

Designed for precision molding, these grades offer MFI ranges from 8 to 12 g/10min. Their superior flow characteristics enable the filling of intricate mold details while maintaining the crystal-clear transparency GPPS is renowned for. The higher melt flow allows for faster cycle times and reduced processing temperatures, optimizing production efficiency without compromising optical properties.

Crystal Grades

Our premium crystal grades showcase MFI ranges from 6 to 10 g/10min, specifically formulated for applications demanding the highest optical clarity. These grades achieve exceptional transparency through advanced polymerization control, resulting in products with glass-like clarity. Their superior light transmission makes them perfect for display packaging and optical components.

Flow Modified Grades

These specialized grades feature MFI ranges from 12 to 20 g/10min, engineered for applications requiring enhanced processability. While maintaining good optical properties, these grades offer superior flow characteristics, enabling the production of complex, thin-walled parts with excellent surface finish and dimensional accuracy.

Applications in Modern Industry

The packaging industry has been transformed by GPPS's unique combination of clarity and processability. In food packaging, GPPS creates crystal-clear containers that showcase products while providing robust protection. From bakery containers to disposable serving ware, the material's natural clarity enhances product presentation while its cost-effectiveness makes it commercially viable for single-use applications.

The display and signage sector relies heavily on GPPS's exceptional optical properties. Store displays, light diffusers, and point-of-purchase materials benefit from the material's glass-like clarity and excellent fabrication characteristics. The polymer's ability to be easily machined, thermoformed, and bonded makes it ideal for creating complex display structures that capture attention while maintaining structural integrity.

In the lighting industry, GPPS plays a crucial role in creating diffusers and covers. The material's high light transmission combined with its ability to be textured or modified creates perfect solutions for both functional and decorative lighting applications. From residential fixtures to commercial lighting systems, GPPS provides the perfect balance of performance and aesthetics.

Engineering Excellence in Impact and Aesthetics

Transform your manufacturing possibilities with our Acrylonitrile Butadiene Styrene (ABS), where superior impact strength meets outstanding surface finish in a versatile engineering plastic.

Understanding ABS (Acrylonitrile Butadiene Styrene)

ABS represents the perfect synergy of three monomers: acrylonitrile contributing chemical resistance, butadiene providing impact strength, and styrene delivering processing ease and surface gloss. This terpolymer's unique molecular architecture creates a two-phase system where soft butadiene rubber particles are precisely dispersed within a rigid matrix, much like steel reinforcement in concrete, providing an exceptional balance of properties.

ABS Classifications

General Purpose Grades

Our general-purpose grades feature MFI ranges from 15 to 25 g/10min, offering excellent balance between processability and mechanical properties. These grades serve as the workhorse of the ABS family, providing consistent performance in a wide range of applications. Their natural high gloss and easy-flow characteristics make them ideal for both aesthetic and functional parts.

High Impact Grades

Engineered for demanding applications, our high-impact grades showcase higher butadiene content with MFI ranges from 8 to 15 g/10min. These grades excel in applications requiring exceptional toughness, offering impact strength improvements of up to 50% compared to general-purpose grades. The carefully controlled rubber particle size ensures optimal impact distribution without compromising surface quality.

Heat Resistant Grades

Our heat resistant portfolio features specially formulated grades with higher acrylonitrile content and MFI ranges from 10 to 20 g/10min. These grades maintain their properties at elevated temperatures up to 95°C, making them ideal for automotive and appliance applications where heat resistance is crucial.

Electroplating Grades

Specialized for premium finishing, these grades contain optimized rubber morphology with MFI ranges from 15 to 30 g/10min. They ensure excellent metal adhesion in electroplating processes while maintaining the core mechanical properties of ABS. Their superior surface chemistry provides consistent plating quality across complex geometries.

Transparent Grades

Our innovative transparent grades represent advanced polymer engineering with carefully controlled morphology and MFI ranges from 20 to 35 g/10min. These grades achieve transparency through precise control of rubber particle size, offering unique design possibilities where transparency meets impact resistance.

Applications in Modern Industry

ABS has revolutionized consumer electronics manufacturing, where its combination of aesthetic appeal and durability creates perfect housings for everything from smartphones to laptops. The material's high gloss and excellent color stability ensure that devices maintain their attractive appearance throughout their lifetime, while its impact resistance protects sensitive internal components.

In automotive applications, ABS grades create everything from interior trim to external mirror housings. The material's weather resistance and color stability ensure that automotive parts maintain their appearance even after years of exposure to harsh conditions. High-impact grades provide the necessary toughness for functional parts, while electroplating grades enable the creation of premium chrome-finished components.

The appliance industry relies heavily on ABS's unique property profile. From refrigerator liners to washing machine control panels, the material's combination of chemical resistance and impact strength ensures long-term durability. Heat resistant grades maintain their integrity near hot components, while general-purpose grades provide cost-effective solutions for less demanding applications.

Engineering Brilliance in Transparency and Impact

Transform your engineering applications with our Polycarbonate portfolio, where exceptional optical clarity meets outstanding impact resistance in a high-performance engineering thermoplastic.

Understanding PC (Polycarbonate)

Polycarbonate represents the pinnacle of engineering plastic design, built upon the elegant architecture of carbonate linkages connecting rigid bisphenol-A units. Picture a molecular structure where strong, rigid aromatic rings are connected by flexible carbonate bridges – like a suspension bridge where rigid towers are connected by flexible cables. This unique molecular design creates an amorphous polymer that combines glass-like transparency with incredible impact strength, even at extreme temperatures.

PC Classifications

Optical Grades

Our optical grade portfolio features melt flow rates (MFR) from 6 to 12 g/10min at 300°C, specifically engineered for applications demanding exceptional clarity and light transmission. These grades undergo special purification processes to achieve extraordinary transparency, often exceeding 89% light transmission. The carefully controlled molecular weight ensures excellent melt stability during processing, preserving optical properties even in complex molding operations.

General Purpose Grades

The general purpose grades showcase MFR ranges from 10 to 20 g/10min, providing balanced performance for everyday applications. These grades deliver the fundamental benefits of PC – high impact strength and good heat resistance – while offering excellent processability in injection molding operations. Their versatile property profile makes them ideal for applications ranging from consumer electronics to industrial components.

High Flow Grades

Engineered for complex or thin-wall applications, these grades feature MFR ranges from 22 to 35 g/10min. Their enhanced flow characteristics enable the filling of intricate mold details while maintaining PC's core mechanical properties. Think of these grades as having shorter molecular chains that flow more easily while still providing the interlocking strength that makes PC exceptional.

Flame Retardant Grades

Our flame retardant portfolio incorporates specially formulated additives while maintaining MFR ranges from 8 to 25 g/10min. These grades achieve UL94 V-0 ratings down to thin sections without compromising the fundamental properties of PC. The non-halogenated flame retardant systems ensure environmental compliance while providing robust fire protection.

UV-Stabilized Grades

Designed for outdoor applications, these grades combine UV stabilizers with MFR ranges from 10 to 22 g/10min. The advanced stabilization packages protect against yellowing and property degradation, extending service life in outdoor exposure. These grades maintain clarity and impact strength even after years of sun exposure.

Applications in Modern Industry

In the automotive industry, PC has revolutionized lighting design. Modern headlamp lenses showcase PC's unique combination of optical clarity and impact resistance. The material's ability to maintain these properties across extreme temperature ranges, from desert heat to arctic cold, makes it invaluable in automotive applications. UV-stabilized grades ensure these components maintain their clarity and performance throughout the vehicle's lifetime.

The electronics sector relies heavily on PC's exceptional property profile. From smartphone cases to laptop housings, PC provides the perfect balance of aesthetics and durability. Flame retardant grades create safe, robust housings for electronic devices, while high flow variants enable the production of increasingly thin and complex components that modern electronics demand.

In the medical field, PC's biocompatibility and sterilization resistance make it indispensable. From clear medical devices to sterilizable equipment housings, PC provides the reliability and clarity healthcare professionals depend on. The material's ability to withstand repeated sterilisation cycles while maintaining its properties ensures long-term performance in critical medical applications.

Engineering Excellence in Strength and Versatility

Transform your engineering applications with our comprehensive Nylon (Polyamide) portfolio, where superior mechanical properties meet exceptional processing versatility.

Understanding Nylon (Type of Polyamide)

Nylon represents a family of high-performance engineering polymers, characterized by strong amide linkages in their molecular backbone. Like a steel chain where each link represents an amide bond, these polymers derive their exceptional strength from hydrogen bonding between polymer chains. The most common variants, Nylon 6 and Nylon 66, showcase distinct molecular architectures leading to unique property profiles.

Nylon Classifications

Nylon 6 Grades

General Purpose Grades

Our standard Nylon 6 grades feature relative viscosity (RV) ranges from 2.7 to 3.2, delivering excellent balance of processability and mechanical properties. These grades provide outstanding toughness and wear resistance, making them ideal for general engineering applications. Their consistent processing characteristics ensure reliable production in injection molding operations.

High Viscosity Grades

Engineered for demanding applications, these grades offer RV ranges from 3.3 to 4.0. Their enhanced molecular weight provides superior impact strength and better melt strength for extrusion applications. Perfect for applications requiring maximum mechanical performance.

Impact Modified Grades

Specially formulated grades incorporating impact modifiers while maintaining RV ranges from 2.7 to 3.5. These grades deliver exceptional low-temperature impact resistance without significantly compromising other mechanical properties.

Nylon 66 Grades

Standard Injection Grades

Our Nylon 66 portfolio features RV ranges from 2.4 to 2.8, optimized for injection molding applications. These grades provide higher heat resistance compared to Nylon 6, making them ideal for under-hood automotive applications.

Heat Stabilized Grades

Engineered with advanced stabilization packages, maintaining RV ranges from 2.4 to 3.0. These grades offer enhanced long-term heat aging resistance, crucial for continuous high-temperature applications.

Glass Fiber Reinforced Grades

15-30% Glass Filled

Medium reinforced grades offering excellent balance between strength and processability. Available in both Nylon 6 and 66 bases, these grades provide significant property enhancement while maintaining good flow characteristics.

33-50% Glass Filled

High performance grades delivering maximum stiffness and dimensional stability. These grades transform Nylon into structural materials competing with metals in many applications.

Applications in Modern Industry

The automotive industry relies heavily on Nylon's exceptional property profile. From air intake manifolds to fuel system components, Nylon provides the perfect combination of heat resistance, chemical stability, and mechanical strength. Glass-reinforced grades create structural components that reduce vehicle weight while maintaining safety and performance.

In electrical applications, Nylon's excellent electrical properties and flame resistance make it ideal for connectors and housings. The material's ability to maintain properties at elevated temperatures ensures reliable performance in demanding electrical environments. Self-extinguishing grades provide additional safety in electrical applications.

The consumer goods sector leverages Nylon's durability and aesthetic appeal. From power tool housings to sporting goods, the material's combination of strength and surface quality creates attractive, long-lasting products. Impact modified grades ensure durability in consumer applications where drop resistance is crucial.

Engineering Brilliance in Optical Clarity

Transform your transparent applications with our Polymethyl Methacrylate portfolio, where glass-like clarity meets weather resistance in a versatile acrylic polymer.

Understanding PMMA (Polymethyl Methacrylate)

Polymethyl Methacrylate represents the gold standard in transparent plastics, achieved through its unique molecular architecture of methyl methacrylate units. Like perfectly arranged glass panels, PMMA's amorphous structure allows for exceptional light transmission – up to 92%, exceeding even glass itself. This molecular clarity, combined with outstanding weather resistance, makes PMMA the material of choice for demanding optical applications.

PMMA Classifications

General Purpose Injection Grades

Our injection molding portfolio features MFI ranges from 12 to 22 g/10min (230°C/3.8kg), optimized for excellent flow and optical properties. These grades provide superior clarity and surface finish in injection molded parts. Their controlled molecular weight ensures consistent processing while maintaining the exceptional optical properties PMMA is known for.

Extrusion Grades

Sheet Extrusion Grades

Engineered specifically for sheet production, these grades offer MFI ranges from 2 to 8 g/10min. Their carefully controlled molecular weight distribution ensures excellent sheet formation and surface quality. Perfect for applications requiring large, flat surfaces with optimal optical clarity.

Profile Extrusion Grades

These specialized grades feature MFI ranges from 3 to 6 g/10min, designed for consistent profile extrusion. Their enhanced melt strength ensures stable processing and excellent surface finish in complex profile geometries.

Impact Modified Grades

Impact-resistant variants combine MFI ranges from 4 to 12 g/10min with carefully selected rubber modifiers. These grades maintain high clarity while offering significantly improved impact strength, making them ideal for applications requiring both transparency and toughness.

UV Enhanced Grades

Our UV-optimized portfolio incorporates special stabilizers while maintaining standard MFI ranges. These grades offer enhanced protection against UV radiation and outdoor exposure, ensuring long-term clarity and performance in exterior applications.

Applications in Modern Industry

The signage and display industry showcases PMMA's exceptional optical properties. From illuminated signs to retail displays, PMMA provides unmatched clarity and light transmission. Its excellent weather resistance ensures outdoor signs maintain their appearance for years, while its ease of fabrication allows for creative design possibilities.

In architectural applications, PMMA has revolutionized lighting and glazing solutions. From skylights to light pipes, the material's combination of clarity and weather resistance creates durable, attractive solutions for natural and artificial lighting. Large PMMA sheets provide architects with lightweight alternatives to glass, offering both safety and design flexibility.

The automotive industry leverages PMMA's unique properties in lighting applications. From tail light lenses to interior displays, PMMA provides the perfect combination of optical clarity and durability. The material's ability to be moulded into complex shapes while maintaining perfect optical properties enables innovative lighting design.

The Sustainable Choice for Premium Elastic Applications

Transform your products with Natural Rubber (NR), the renewable elastomer that sets the benchmark for resilience, elasticity, and environmental sustainability in rubber applications.

Understanding Natural Rubber

Natural Rubber represents nature's gift to industrial applications, harvested primarily from Hevea Brasiliensis trees through a sophisticated tapping process. This remarkable material consists of cis-1,4-polyisoprene, nature's perfect polymer chain structure that delivers unmatched elasticity and resilience. The unique molecular configuration of natural rubber provides superior dynamic properties that synthetic alternatives still strive to match, making it irreplaceable in many demanding applications.

The raw material undergoes careful processing from field latex to commercial grades, preserving its inherent properties while enabling customization for specific applications. Through controlled coagulation and sophisticated processing techniques, natural rubber is transformed into various commercial forms, each optimized for specific end uses. The material's ability to strain crystallize under deformation contributes to its exceptional strength and wear resistance, particularly valuable in high-performance applications.

Understanding Natural Rubber Grades and Properties

Ribbed Smoked Sheets (RSS) represent the premium grade of natural rubber, produced through a carefully controlled smoking process that ensures optimal cleanliness and consistency. These grades are classified from RSS-1 to RSS-5, with RSS-1 offering the highest purity and cleanliness levels. The smoking process not only dries the rubber but also imparts antioxidant properties that enhance storage stability and processing characteristics.

Technically Specified Rubber (TSR) grades offer manufacturers precise control over properties through standardized processing and testing. These grades are classified based on dirt content, ash content, nitrogen content, plasticity retention index (PRI), and other technical parameters. TSR grades range from TSR-CV for premium applications to TSR-20 for general-purpose use, enabling manufacturers to select the exact grade needed for their specific requirements.

Latex concentrates serve specialized applications requiring liquid natural rubber. These grades undergo centrifugation to increase rubber content from approximately 30% in field latex to 60% or higher. The concentrated latex can be further processed to remove non-rubber constituents, producing specialized grades for dipping applications, foam production, and adhesive manufacturing.

Industry Applications and Performance

The tire industry remains the largest consumer of natural rubber, particularly for commercial vehicle tires where its superior dynamic properties are essential. Natural rubber's exceptional fatigue resistance and heat buildup characteristics make it irreplaceable in truck tire treads and aircraft tires. The material's strain crystallization behavior contributes to excellent tear resistance and overall durability under severe operating conditions.

Engineering applications benefit from natural rubber's superior vibration damping properties. Anti-vibration mounts, bridge bearings, and seismic isolation systems rely on natural rubber's ability to absorb energy while maintaining structural integrity over long service periods. The material's low heat buildup characteristics ensure reliable performance under repeated stress cycles.

In medical applications, natural rubber latex continues to play a vital role despite the emergence of synthetic alternatives. Its unique combination of barrier properties, elasticity, and tactile sensitivity makes it particularly valuable in examination gloves and specialized medical devices. Advanced processing techniques have enabled the production of low-protein variants that address allergenicity concerns while maintaining superior performance characteristics.

Construction and mining industries utilize natural rubber's exceptional properties in conveyor belts, mining equipment components, and specialized seals. The material's ability to withstand severe operating conditions while maintaining flexibility and resilience makes it indispensable in these demanding applications.

Engineering Excellence in Air-Tight Solutions

Transform your high-barrier applications with Butyl Rubber (IIR), the specialised synthetic rubber that delivers unmatched gas impermeability combined with excellent flex properties and chemical resistance.

Understanding Butyl Rubber (IIR)

Butyl Rubber represents a remarkable achievement in polymer science, distinguished by its exceptional ability to prevent gas permeation. The secret behind this unique property lies in its molecular structure, which consists predominantly of isobutylene units with small amounts of isoprene providing essential crosslinking sites. The densely packed isobutylene segments create an extremely tight molecular structure that effectively blocks the passage of gases and moisture, making Butyl Rubber virtually impermeable.

The molecular architecture of Butyl Rubber also contributes to its outstanding flex properties and resilience. The low levels of unsaturation in the polymer backbone result in excellent resistance to oxidation and aging, ensuring long-term performance in demanding applications. This combination of properties makes Butyl Rubber particularly valuable in applications where maintaining a gas-tight seal is critical, such as tire inner liners and pharmaceutical closures.

Butyl Rubber Classifications

Regular Butyl Grades

Our regular Butyl grades provide the foundation of gas barrier technology. These grades feature carefully controlled molecular weight and isoprene content to deliver consistent processing characteristics and reliable barrier properties. The balanced composition ensures excellent air retention while maintaining good flexibility and resilience. These grades serve as the industry standard for applications requiring superior gas barrier properties combined with good processability.

Halogenated Butyl Grades

We offer both Chlorobutyl (CIIR) and Bromobutyl (BIIR) grades, representing advanced developments in Butyl technology. Through controlled halogenation of the polymer backbone, these grades provide enhanced cure compatibility with other elastomers while maintaining the exceptional barrier properties of regular Butyl. The modified chemical structure enables co-vulcanization with general-purpose rubbers, making these grades particularly valuable in tire manufacturing and pharmaceutical applications where specific cure systems are required.

Low Viscosity Grades

Developed for improved processing characteristics, our low viscosity Butyl grades offer enhanced flow properties while maintaining essential barrier performance. These grades facilitate easier processing in injection molding and extrusion operations. The optimized molecular weight distribution ensures good processability without compromising the material's fundamental barrier properties.

High Molecular Weight Grades

Our high molecular weight grades cater to applications requiring maximum strength and enhanced barrier properties. These specialized products deliver superior mechanical properties and even lower permeability rates. The increased molecular weight provides improved green strength during processing and enhanced physical properties in the final product.

Applications in Modern Industry

Butyl Rubber demonstrates its irreplaceable value across numerous specialized industrial sectors. In the tire industry, it serves as the essential component for tire inner liners, where its unmatched air retention properties ensure long-term tire pressure maintenance. The material's ability to prevent air permeation significantly improves vehicle safety and fuel efficiency by maintaining proper tire inflation over extended periods.

The pharmaceutical industry relies heavily on Butyl Rubber for manufacturing critical closure systems. Whether used in vial stoppers, syringe plungers, or other medical packaging components, Butyl Rubber provides the necessary barrier properties to protect sensitive medications. Its chemical inertness and ability to maintain sterility make it indispensable in pharmaceutical packaging applications.

In the construction sector, Butyl Rubber excels in developing high-performance sealants and adhesives. Its excellent moisture barrier properties and permanent flexibility make it ideal for roofing membranes and vapor barriers. The material's ability to maintain its properties over decades of service ensures long-lasting protection against moisture intrusion in building envelope applications.

The automotive industry showcases Butyl Rubber's importance beyond tire applications through various specialized components. From vacuum actuator diaphragms to sound dampening materials, Butyl Rubber's unique properties contribute to vehicle performance and comfort. Its excellent vibration dampening characteristics make it particularly valuable in noise reduction applications.

The Advanced Solution for Flexible Polyolefin Applications

Transform your products with Polyolefin Elastomer (POE), the innovative material that brings rubber-like flexibility to polyolefin applications while maintaining excellent processing characteristics.

Understanding POE (Polyolefin Elastomer)

Polyolefin Elastomer represents a breakthrough in polymer technology, bridging the gap between plastics and rubber. This advanced material is produced through metallocene catalysis, resulting in a highly controlled molecular structure that delivers consistent performance and superior properties. POE's unique molecular architecture combines crystalline and amorphous regions, providing excellent flexibility while maintaining compatibility with various polyolefins. The material offers outstanding low-temperature impact resistance and enhanced flexibility without compromising processability, making it an ideal choice for applications requiring soft-touch characteristics and improved impact performance.

Unlike traditional elastomers, POE offers exceptional compatibility with polyolefins, particularly polyethylene and polypropylene. This compatibility enables manufacturers to achieve precise property modifications in compounds and blends. The material's controlled molecular weight distribution ensures consistent processing and end-product performance, while its elastomeric nature provides excellent recovery properties and long-term flexibility retention.

Understanding POE Classifications and Properties

In the general-purpose category, POE grades feature density ranges from 0.857 to 0.875 g/cm³, offering a balance of flexibility and processability. These grades find extensive use in automotive applications, packaging films, and general polymer modification. The molecular structure can be fine-tuned during production to achieve specific performance characteristics, such as enhanced low-temperature flexibility or improved heat resistance.

Impact modification grades incorporate optimized molecular weight and comonomer distribution, specifically designed to enhance the impact strength of rigid polyolefins. These grades typically feature density ranges from 0.860 to 0.870 g/cm³ and are particularly effective in improving low-temperature impact resistance in automotive compounds and rigid packaging applications.

For film applications, specialized POE grades offer enhanced optical properties and flexibility. These grades typically feature very low crystallinity and controlled molecular weight distribution, resulting in excellent transparency and seal properties. The material's ability to improve impact strength without compromising optical clarity makes it invaluable in packaging applications.

Injection molding grades of POE are engineered with optimized melt flow characteristics, typically ranging from 2 to 20 g/10min. These grades ensure excellent processability while maintaining the desired flexibility and impact resistance in the final product. The carefully controlled molecular structure enables efficient processing and consistent product quality.

Industry Applications and Performance

In the automotive sector, POE has revolutionized interior and exterior applications by providing enhanced softness and improved impact resistance to various components. The material's excellent low-temperature performance makes it particularly valuable in weather seals, interior trim, and bumper compounds. Its ability to maintain flexibility across a wide temperature range ensures reliable performance in demanding automotive applications.

The packaging industry benefits from POE's unique property profile in both flexible and rigid packaging applications. In flexible packaging, it enhances the seal strength and puncture resistance of films while improving their elastic recovery. For rigid packaging, POE serves as an effective impact modifier, enabling the development of tough, durable containers that resist cracking and breaking.

Wire and cable manufacturers utilize POE for its excellent electrical properties and flexibility. The material's compatibility with polyolefins makes it ideal for cable insulation and jacketing compounds, where it provides enhanced flexibility and improved stress crack resistance. Its thermal stability ensures long-term performance in both indoor and outdoor applications.

In the medical sector, POE grades meeting healthcare standards offer an excellent alternative to PVC in various applications. The material's purity, combined with its flexibility and sterilization resistance, makes it suitable for medical tubing, bags, and other healthcare products requiring soft, flexible characteristics.

EPDM - Superior Weather-Resistant Elastomer Technology

Transform your outdoor and demanding applications with Ethylene Propylene Diene Monomer (EPDM) rubber, the versatile synthetic elastomer that delivers outstanding weather resistance and remarkable durability across extreme environmental conditions.

Understanding EPDM (Ethylene Propylene Diene Monomer)

Ethylene Propylene Diene Monomer rubber represents a sophisticated achievement in polymer engineering, designed to excel in challenging outdoor environments. The foundation of EPDM's exceptional performance lies in its saturated polymer backbone, composed of ethylene and propylene units, with a small amount of diene monomer providing the necessary crosslinking sites. This unique molecular architecture grants EPDM its remarkable resistance to ozone, ultraviolet radiation, and weathering effects.

The ratio of ethylene to propylene in EPDM significantly influences its properties. Higher ethylene content enhances the material's load-bearing capabilities and provides better mixing with fillers, while higher propylene content contributes to flexibility and low-temperature performance. The carefully controlled diene content ensures optimal crosslinking efficiency during vulcanization, allowing manufacturers to achieve the desired balance of processing characteristics and final properties. This fundamental understanding of structure-property relationships enables us to tailor EPDM grades for specific application requirements.

EPDM Classifications

Standard Grades

Our standard EPDM grades provide reliable performance across a broad range of applications. These grades feature medium ethylene content and balanced diene levels, offering good processability and excellent weather resistance. The carefully controlled molecular weight distribution ensures consistent processing behavior and property development. These versatile grades serve as the foundation for many industrial and construction applications, providing reliable long-term performance in outdoor environments.

High Crystallinity Grades

Developed for applications requiring enhanced mechanical properties, our high crystallinity grades contain elevated ethylene content. The increased crystallinity provides superior green strength and improved physical properties. These grades excel in extruded profiles and other applications where dimensional stability and mechanical strength are crucial. The optimized polymer architecture ensures excellent filler acceptance while maintaining good processability.

Fast Cure Grades

Our fast cure EPDM grades feature optimized diene content and distribution for improved vulcanization efficiency. These grades provide reduced cure times and enhanced productivity in manufacturing operations. The carefully balanced cure system ensures uniform crosslinking while maintaining the excellent aging properties characteristic of EPDM. These grades are particularly valuable in high-volume production environments where processing efficiency is crucial.

Oil Extended Grades

Created for cost-effective processing and improved low-temperature performance, our oil extended grades incorporate carefully selected paraffinic oils during production. These grades offer enhanced processability and easier mixing while maintaining essential performance characteristics. The controlled oil extension enables higher filler loading capabilities without compromising the material's weather resistance or durability.

Applications in Modern Industry

EPDM demonstrates its versatility across numerous industrial sectors. In the construction industry, it serves as the premier material for roofing membranes and waterproofing applications. The material's exceptional resistance to ultraviolet radiation and ozone, combined with its ability to maintain flexibility over decades of service, makes it the ideal choice for these demanding applications. Its superior weathering characteristics ensure reliable performance in all climate conditions, from extreme heat to sub-zero temperatures.

The automotive industry extensively utilizes EPDM for manufacturing weather-stripping, seals, and various rubber components exposed to the elements. The material's ability to maintain its properties despite constant exposure to sunlight, temperature variations, and environmental pollutants ensures long-lasting performance. Its excellent compression set resistance and dynamic properties make it particularly suitable for door and window seals.

In the heating, ventilation, and air conditioning (HVAC) sector, EPDM plays a crucial role in developing durable sealing solutions. From ductwork gaskets to vibration isolation mounts, EPDM components ensure reliable system performance while resisting environmental degradation. The material's broad temperature resistance range and excellent ozone resistance make it ideal for outdoor HVAC equipment.

The renewable energy sector showcases EPDM's importance through applications in solar panel mounting systems and weather seals. As the solar industry grows, EPDM's durability and weather resistance make it an essential component in ensuring the long-term reliability of solar installations. Its ability to maintain flexibility and sealing properties throughout decades of outdoor exposure contributes to the sustainable performance of renewable energy systems.

Environmental Note: EPDM's exceptional durability and longevity contribute to sustainability by reducing replacement frequency and associated environmental impact. Its ability to maintain properties throughout a long service life makes it a responsible choice for outdoor applications.

Advanced Oil-Resistant Rubber Technology

Transform your critical applications with Nitrile Butadiene Rubber (NBR), the specialized synthetic rubber that delivers outstanding resistance to oils, fuels, and chemicals while maintaining excellent mechanical properties.

Understanding NBR (Nitrile Butadiene Rubber)

Nitrile Butadiene Rubber represents a significant advancement in specialty elastomer technology, distinguished by its exceptional resistance to oils and petroleum-based fluids. The secret to NBR's performance lies in its molecular structure, which combines acrylonitrile and butadiene units in precisely controlled ratios. The acrylonitrile content directly influences the rubber's oil resistance – higher levels provide enhanced resistance to non-polar substances, while the butadiene component contributes to the material's flexibility and low-temperature performance.

Understanding the relationship between acrylonitrile content and performance is crucial for optimal material selection. As acrylonitrile levels increase, oil resistance improves, but low-temperature flexibility decreases. This fundamental principle guides the development of different NBR grades, allowing manufacturers to select the perfect balance for their specific applications. The material's unique chemical structure also provides excellent resistance to heat aging and maintains its properties over a wide temperature range.

NBR Classifications

Standard Nitrile Grades

Our standard NBR grades cover a range of acrylonitrile contents from 18% to 50%. Through careful control of the polymerization process, we produce varieties that balance oil resistance with flexibility. These grades serve as the foundation for many industrial applications, offering reliable performance in moderately demanding environments. The varying acrylonitrile contents enable users to select the optimal grade based on specific oil resistance requirements and operating conditions.

Carboxylated Nitrile Grades (XNBR)

Our carboxylated grades represent an advanced development in NBR technology. By incorporating carboxyl groups into the polymer backbone, these grades offer enhanced strength properties and improved abrasion resistance. The modified chemical structure provides superior compatibility with fillers and better adhesion characteristics, making these grades particularly valuable in demanding applications requiring high strength and wear resistance.

Low-Temperature Grades

Developed specifically for challenging cold environments, our low-temperature NBR grades maintain flexibility at reduced temperatures while providing necessary oil resistance. These specialized products achieve their performance through optimized acrylonitrile content and careful control of polymer architecture. The balanced composition ensures reliable performance in applications where standard grades might become too stiff.

Pre-Crosslinked Grades

Our pre-crosslinked NBR grades offer unique processing advantages and improved physical properties. Through controlled partial crosslinking during production, these grades provide enhanced processing safety and reduced tendency toward scorching. The pre-crosslinked structure contributes to improved compression set and better retention of physical properties at elevated temperatures.

Applications in Modern Industry

NBR demonstrates its versatility across numerous demanding industrial sectors. In the automotive industry, it serves as the primary material for oil seals, fuel hoses, and various gaskets. The material's resistance to motor oils, fuels, and other automotive fluids makes it indispensable in modern vehicle systems. Its ability to maintain properties over long periods of exposure to these fluids ensures reliable long-term performance.

The oil and gas industry extensively utilizes NBR for manufacturing seals, gaskets, and hoses exposed to aggressive environments. Whether in drilling operations or processing facilities, NBR compounds provide the necessary resistance to hydrocarbon-based fluids while maintaining structural integrity. The material's heat resistance and aging properties ensure extended service life in these demanding applications.

In the industrial equipment sector, NBR plays a crucial role in developing reliable sealing solutions. From hydraulic systems to pneumatic equipment, NBR components ensure efficient operation by preventing fluid leakage and maintaining system integrity. The material's resistance to industrial oils and greases, combined with good mechanical properties, makes it the preferred choice for many sealing applications.

The printing industry showcases NBR's importance through applications in roller coverings and printing blankets. The material's resistance to printing inks and cleaning solvents, coupled with good dynamic properties, ensures consistent performance in printing operations. Its ability to maintain dimensional stability while exposed to aggressive chemicals makes it particularly valuable in this precision application.

The Superior Choice for High-Performance Thermoplastic Applications

Transform your product performance with Styrene Butadiene Styrene (SBS), the versatile block copolymer that combines rubber-like elasticity with thermoplastic processability.

Understanding SBS (Styrene Butadiene Styrene)

SBS represents an advanced thermoplastic elastomer that combines the best properties of rubber and plastic. This block copolymer features styrene end blocks with a flexible butadiene mid-block, creating a unique molecular structure that delivers outstanding elasticity with excellent processing characteristics. Unlike conventional rubber, SBS can be processed using standard thermoplastic equipment while providing rubber-like properties in the final product. The material's ability to be repeatedly softened by heating and hardened by cooling makes it ideal for various molding and extrusion applications.

SBS Classifications

Linear Grades

Our linear SBS grades offer balanced mechanical properties with styrene content ranging from 25% to 35%. These grades provide excellent elasticity and tensile strength, making them perfect for adhesives, sealants, and polymer modification applications. Their consistent molecular structure ensures reliable processing and end-product performance.

Radial Grades

Radial (star-shaped) SBS grades feature enhanced strength and improved processing characteristics. Available in styrene contents from 30% to 40%, these grades excel in applications requiring higher melt strength and superior mechanical properties, particularly suitable for polymer modification and compound applications.

High Styrene Grades

Specially engineered with styrene content above 40%, these grades deliver enhanced hardness and thermal stability. Perfect for applications requiring higher temperature resistance and improved dimensional stability, while maintaining good elasticity.

Clear Grades

Our transparent SBS grades offer exceptional clarity with balanced mechanical properties. These grades are specifically designed for applications where transparency is crucial, such as clear adhesives and optical products.

Applications in Modern Industry

SBS has revolutionized various industrial sectors with its unique properties. In the bitumen modification industry, it serves as a key polymer modifier, significantly improving the performance of road construction materials. The addition of SBS enhances asphalt's temperature sensitivity, elasticity, and durability, resulting in longer-lasting roads.

The footwear industry extensively uses SBS in shoe sole compounds. Its excellent wear resistance and flexibility make it perfect for creating comfortable, durable footwear components. The material's good processability allows for efficient production while maintaining consistent quality.

Adhesive manufacturers rely on SBS for producing high-performance adhesive formulations. The material's excellent tackifying resin compatibility and good cohesive strength make it ideal for pressure-sensitive adhesives, hot melt adhesives, and various bonding applications.

In the plastic modification sector, SBS serves as an impact modifier for rigid plastics. Its ability to enhance impact resistance while maintaining other desirable properties makes it valuable in engineering plastic compounds.

The Advanced Solution for Weather-Resistant Thermoplastic Applications

Transform your products with Styrene Ethylene Butylene Styrene (SEBS), the hydrogenated thermoplastic elastomer that delivers superior weatherability and long-term performance stability.

Understanding SEBS (Styrene Ethylene Butylene Styrene)

SEBS represents the next generation of thermoplastic elastomers, created through the hydrogenation of SBS. This advanced polymer features saturated mid-blocks that provide exceptional UV and weather resistance compared to conventional styrenic block copolymers. The material's unique molecular structure combines the processing ease of thermoplastics with the performance properties of vulcanized rubber, while offering superior aging characteristics. Its excellent stability and resistance to degradation make it the preferred choice for demanding outdoor applications.

SEBS Classifications

General Purpose Grades

Our standard SEBS grades offer balanced performance with styrene content ranging from 13% to 30%. These grades provide excellent elasticity and processing characteristics, making them ideal for general compounding and polymer modification applications. Their consistent quality ensures reliable performance across various processing methods.

High Flow Grades

Engineered for injection molding and complex parts, these grades feature optimized melt flow characteristics. Available in various styrene contents, they excel in applications requiring detailed mold filling and efficient processing, particularly suitable for thin-walled products and intricate designs.

Oil Extended Grades

Specially formulated grades containing varying levels of process oil, offering enhanced softness and improved processing. These grades are perfect for applications requiring extreme softness and flexibility, such as soft-touch grips and gaskets.

Clear Grades

Our transparent SEBS grades deliver exceptional clarity while maintaining superior weather resistance. These specialized grades are designed for applications where both transparency and outdoor durability are essential, such as clear grips and translucent seals.

Applications in Modern Industry

SEBS has transformed various industrial sectors with its advanced properties. In the automotive industry, it serves as a key material for exterior and interior components, where its excellent UV resistance and durability ensure long-lasting performance. From weather seals to soft-touch surfaces, SEBS maintains its properties throughout the vehicle's lifetime.

The consumer goods sector extensively uses SEBS for soft-touch applications. Its excellent tactile properties combined with superior durability make it perfect for creating ergonomic grips, handles, and overmolded components that maintain their feel and appearance over time.

Medical device manufacturers rely on SEBS for its exceptional purity and stability. The material's biocompatibility and sterilization resistance make it ideal for medical tubing, seals, and various healthcare products where reliability is crucial.

In the construction industry, SEBS serves as a crucial component in roofing membranes and weatherable seals. Its outstanding weather resistance and flexibility ensure long-term performance in challenging outdoor environments.

The Versatile Solution for Soft-Touch Applications

Transform your products with Thermoplastic Rubber (TPR), the adaptable elastomer that combines rubber-like softness with easy thermoplastic processing for endless design possibilities.

Understanding TPR (Thermoplastic Rubber)

TPR represents a family of versatile elastomers that bridges the gap between rubber and plastic materials. This innovative material combines the flexibility and softness of rubber with the easy processing characteristics of thermoplastics. Unlike conventional rubber, TPR can be repeatedly melted and shaped using standard plastic processing equipment, eliminating the need for vulcanization. Its unique polymer structure allows for customizable hardness levels and properties, making it ideal for a wide range of applications requiring soft-touch characteristics.

TPR Classifications

General Purpose Grades

Our standard TPR grades offer balanced performance with hardness ranging from 45A to 95A. These grades provide good flexibility and surface finish, making them ideal for common injection molding applications. Their consistent quality ensures reliable processing and end-product performance.

Ultra-Soft Grades

Specially formulated grades with hardness ranging from 25A to 40A, delivering extreme softness and flexibility. These grades excel in applications requiring maximum comfort and cushioning effects, perfect for ergonomic grips and soft-touch overlays.

High Flow Grades

Engineered for complex molds and thin-wall applications, these grades feature enhanced flow characteristics. Available in various hardness levels, they ensure complete mold filling and excellent surface finish in intricate designs.

Grip-Enhanced Grades

Our specialized grades with modified surface characteristics provide enhanced grip and anti-slip properties. These grades maintain their grip characteristics over time, making them ideal for handle overlays and safety applications.

Applications in Modern Industry

TPR has revolutionized various industrial sectors with its versatile properties. In the consumer goods industry, it serves as the primary material for soft-touch handles and grips. From power tools to kitchen utensils, TPR provides comfortable, non-slip surfaces that enhance user experience and product safety.

The footwear sector extensively uses TPR for sole applications. Its excellent wear resistance and flexibility make it perfect for creating comfortable, durable shoe soles. The material's good adhesion to various substrates ensures reliable bonding in multi-material constructions.

Automotive manufacturers rely on TPR for various interior components. From instrument panel overlays to storage compartment liners, TPR's soft touch and durability enhance the vehicle's interior quality while maintaining long-term performance.

In the electronics sector, TPR provides protective and ergonomic solutions. Phone cases, keyboard overlays, and protective bumpers benefit from TPR's shock-absorbing properties and pleasant tactile feel.

Engineering Performance in Synthetic Rubber Solutions

Transform your rubber applications with Styrene Butadiene Rubber (SBR), the versatile synthetic rubber that combines outstanding wear resistance with superior processing characteristics.

Understanding SBR (Styrene Butadiene Rubber)

Styrene Butadiene Rubber represents a significant achievement in synthetic rubber technology, emerging as one of the most widely used elastomers globally. Its molecular structure, consisting of styrene and butadiene units in carefully controlled ratios, provides an exceptional balance of properties. The distribution and arrangement of these molecular building blocks determine the final properties of the rubber, allowing manufacturers to tailor characteristics for specific applications.

The success of SBR lies in its ability to deliver consistent performance across a wide temperature range while maintaining excellent abrasion resistance. Through careful control of polymerization conditions and monomer ratios, SBR offers manufacturers the flexibility to achieve specific performance characteristics. The material's inherent stability and compatibility with various compounding ingredients make it particularly valuable in developing customized rubber formulations.

SBR Classifications

Emulsion SBR (E-SBR)

Our emulsion polymerized grades represent the traditional and most widely used form of SBR. Through advanced emulsion polymerization technology, we produce varieties with different styrene contents and oil extension levels. These grades excel in applications requiring balanced properties and easy processing. The cold polymerized grades offer superior strength and wear resistance, while hot polymerized varieties provide enhanced processing characteristics.

Solution SBR (S-SBR)

Our solution polymerized grades showcase the latest advancements in synthetic rubber technology. These grades feature precisely controlled molecular structure and distribution, resulting in superior dynamic properties. The careful control over microstructure enables exceptional performance in demanding applications, particularly in modern tire manufacturing where reduced rolling resistance and enhanced wet grip are crucial.

Oil Extended Grades

Developed for optimized processing and cost-effectiveness, our oil extended grades incorporate carefully selected process oils during production. These grades offer improved processing characteristics and lower compound costs while maintaining essential performance properties. The controlled oil extension enables higher filler loading capabilities and easier mixing in downstream operations.

High Styrene Grades

Our high styrene content grades cater to applications requiring increased hardness and improved processing. These specialized products deliver enhanced stiffness and dimensional stability while maintaining good elastomeric properties. The higher styrene content enables better compatibility with polystyrene and improved printing characteristics in specific applications.

Applications in Modern Industry

SBR demonstrates its versatility across numerous industrial sectors. In the tire industry, it serves as the primary polymer for passenger car tire treads. When properly compounded, SBR provides the optimal balance of wet grip, wear resistance, and rolling resistance required for modern tire performance. The material's ability to accept high filler loadings while maintaining good processing characteristics makes it particularly valuable in this demanding application.

The technical rubber goods sector extensively utilizes SBR for manufacturing conveyor belts, hoses, and various mechanical goods. The material's excellent abrasion resistance and aging properties ensure long service life in these applications. Its compatibility with other polymers enables manufacturers to develop optimized blends for specific performance requirements.

In the footwear industry, SBR plays a crucial role in developing durable sole compounds. Its excellent wear resistance and flex properties make it ideal for both athletic and casual footwear applications. The material's ability to be colored and its good adhesion properties provide designers with flexibility in creating innovative footwear solutions.

The construction sector showcases SBR's importance through applications in flooring, roofing, and sealing systems. Whether used in modified bitumen or as a polymer modifier, SBR enhances the durability and performance of construction materials. Its weather resistance and stability make it particularly suitable for outdoor applications.

Advanced Synergistic Flame Retardant Technology

Elevate your flame retardant systems with Antimony Trioxide (Sb₂O₃), the industry-leading synergist that maximises the effectiveness of halogenated flame retardants in demanding applications.

Understanding Antimony Trioxide

Antimony Trioxide represents sophisticated flame retardant technology, functioning as a powerful synergist that dramatically enhances the performance of halogenated flame retardants. This white, crystalline compound operates through a complex chemical mechanism during fire conditions. When combined with halogenated flame retardants, Antimony Trioxide creates a powerful gas-phase flame inhibition system that effectively interrupts the combustion process. This synergistic action allows manufacturers to achieve superior flame retardancy with lower overall additive loading levels.

The compound's effectiveness stems from its ability to form volatile antimony halides during fire conditions. These compounds create a protective barrier in the flame zone, significantly reducing the spread of fire. This mechanism of action makes Antimony Trioxide particularly valuable in applications where high levels of flame retardancy must be achieved while maintaining material properties.

Antimony Trioxide Classifications

Standard Grade

Our standard grade Antimony Trioxide provides reliable performance for most flame retardant applications. With controlled particle size distribution and high purity levels, this grade ensures consistent performance across various polymer systems. The carefully maintained specifications deliver dependable synergistic effects with halogenated flame retardants.

Ultra-Fine Grade

Developed for specialized applications, our ultra-fine grade features carefully controlled particle size distribution in the submicron range. This grade excels in applications requiring exceptional dispersion and optical properties. The finer particle size enhances the interaction between Antimony Trioxide and halogenated flame retardants, optimizing the synergistic effect.

High Purity Grade

Our high purity grade meets stringent requirements for specialized applications. With precisely controlled impurity levels and consistent particle characteristics, this grade serves applications where material purity is crucial. The enhanced purity ensures optimal performance in sensitive applications while maintaining excellent synergistic properties.

Applications in Modern Industry

Antimony Trioxide demonstrates its versatility across numerous industrial sectors. In the plastics industry, it serves as a key component in flame retardant systems for various polymers. When properly incorporated with halogenated flame retardants, it enables manufacturers to meet stringent fire safety standards while maintaining essential material properties.

The textile sector extensively utilizes Antimony Trioxide in flame retardant treatments for various fabrics. Whether incorporated into synthetic fibers or applied as part of a coating system, Antimony Trioxide helps achieve necessary fire safety standards for applications ranging from protective clothing to commercial furnishings.

In the wire and cable industry, Antimony Trioxide plays a crucial role in developing fire-resistant insulation and jacketing compounds. These applications benefit from the synergistic effect between Antimony Trioxide and halogenated flame retardants, achieving required flame retardancy while maintaining electrical and physical properties.

The electronics sector showcases Antimony Trioxide's importance in developing flame-retardant housings and components. Its effectiveness in polymer systems helps manufacturers meet international fire safety standards while maintaining the dimensional stability and appearance of electronic components.

CPW - The Versatile Flame Retardant and Plasticizer Solution

Transform your industrial applications with Chlorinated Paraffin Wax (CPW), the multi-functional additive that enhances flame retardancy while providing excellent plasticizing properties.

Understanding CPW (Chlorinated Paraffin Wax)

Chlorinated Paraffin Wax represents a crucial industrial additive that combines flame retardant properties with plasticizing capabilities. This versatile material is produced through the chlorination of high-quality paraffin wax, resulting in different grades based on chlorine content and carbon chain length. CPW's unique chemical structure provides excellent flame retardancy while improving the processability of various materials. Its stability and compatibility with multiple polymers make it an indispensable component in modern industrial applications.

CPW Classifications

Short Chain CPW (C10-C13)

Our short-chain CPW grades feature chlorine content ranging from 40% to 70%. These grades offer excellent flame retardancy and plasticizing effects, particularly suitable for metalworking fluids and specialized industrial applications. The higher chlorine content variants provide enhanced flame retardant properties.

Medium Chain CPW (C14-C17)

Medium chain grades, available in 40% to 60% chlorine content, provide balanced performance between plasticizing and flame retardant properties. These grades excel in PVC applications and rubber products, offering good stability and compatibility while maintaining environmental compliance.

Long Chain CPW (C18-C20)

Designed for applications requiring high stability, our long-chain CPW grades contain 40% to 50% chlorine. These grades provide excellent heat stability and low volatility, making them ideal for long-term applications in plastics and coatings where durability is essential.

Liquid Grades

Our liquid CPW grades offer easier handling and processing characteristics. Available in various chlorine contents, these grades are particularly suitable for applications requiring room temperature fluidity while maintaining excellent flame retardant properties.

Applications in Modern Industry

CPW serves diverse industrial sectors with its multi-functional benefits. In the PVC industry, it acts as both a secondary plasticizer and flame retardant, enhancing product flexibility while improving fire safety characteristics. From cables to artificial leather, CPW ensures products meet stringent safety standards.

The paint and coating industry relies on CPW for its flame retardant properties and plasticizing effects. It improves the coating's durability while providing essential fire safety characteristics, particularly important in industrial and protective coatings.

Rubber manufacturing benefits from CPW's plasticizing properties and flame retardancy. The material enhances processing characteristics while improving the final product's fire resistance, crucial for products like conveyor belts and industrial rubber goods.

In metalworking applications, CPW serves as an effective extreme pressure additive in cutting oils and lubricants. Its chlorine content provides excellent lubricity and cooling properties, extending tool life and improving machining efficiency.

Engineering Safety Through Advanced Flame Retardant Technology

Transform your products with Aluminum Trihydrate (ATH), nature's solution to flame retardancy that combines superior fire protection with environmental responsibility.

Understanding ATH (Aluminum Trihydrate)

Aluminum Trihydrate, also known as aluminum hydroxide or Al(OH)₃, represents a remarkable achievement in mineral flame retardant technology. Its effectiveness stems from a unique endothermic decomposition process that occurs during fire exposure. When heated above 180°C, ATH releases water molecules in a controlled manner, absorbing significant heat energy and simultaneously creating a protective barrier against flame spread. This natural process makes ATH one of the most environmentally friendly flame retardants available today, containing no halogens or harmful substances.

The pure white appearance of ATH further enhances its value, serving not just as a flame retardant but also as a functional filler that can improve the aesthetic and mechanical properties of end products. Its high brightness and opacity make it particularly valuable in applications where appearance matters as much as safety.

ATH Classifications

Standard Grade

Our standard ATH grade provides balanced performance across various applications. With carefully controlled particle size distribution and surface area, this grade offers excellent dispersion characteristics in polymer systems. The consistent quality ensures reliable flame retardant properties while maintaining good processing characteristics in manufacturing operations.

Fine Precipitated Grade

Engineered for demanding applications, our fine precipitated ATH grade features superior particle fineness and controlled morphology. This grade excels in applications requiring exceptional surface finish and high mechanical properties. The carefully controlled precipitation process ensures optimal particle size distribution, resulting in improved compound properties and enhanced flame retardant effectiveness.

Surface Treated Grade

Developed specifically for improved compatibility with various polymer systems, our surface treated ATH grades feature modified surface chemistry. These grades offer enhanced processing characteristics and better mechanical properties in the final compound. The surface treatment enables better dispersion and higher filler loading levels, maximizing flame retardant effectiveness while maintaining excellent physical properties.

Ultra-Fine Grade

Our ultra-fine ATH grade caters to specialized applications requiring superior transparency and exceptional mechanical properties. With precisely controlled particle size in the submicron range, this grade delivers outstanding performance in clear or translucent applications while maintaining effective flame retardancy.

Applications in Modern Industry

ATH's versatility shines across numerous industrial sectors. In the wire and cable industry, it serves as the primary flame retardant in low-smoke, zero-halogen compounds. The material's ability to suppress smoke generation while providing effective flame retardancy makes it invaluable in applications where safety is paramount, such as building wiring and mass transit cables.

The construction sector extensively utilizes ATH in various applications, from solid surface countertops to decorative panels. When incorporated into polymer systems, ATH not only provides fire resistance but also contributes to the mechanical strength and surface quality of the final products. Its white color and controlled particle size make it particularly suitable for applications where aesthetic appeal is crucial.

In the transportation industry, ATH plays a vital role in developing fire-resistant composites for vehicle interiors. These applications benefit from ATH's ability to provide flame retardancy without compromising the mechanical properties or increasing the overall weight significantly. The absence of corrosive smoke during fire exposure further enhances its suitability for enclosed spaces.

The electronics sector demonstrates ATH's importance in developing flame-retardant enclosures and components. Its electrical insulating properties, combined with effective flame retardancy, make it ideal for applications requiring both fire safety and electrical reliability. The material's stability across a wide temperature range ensures consistent performance throughout the product lifecycle.

Environmental Note: ATH stands out as an environmentally responsible choice in flame retardancy, producing only water vapour during its flame-retardant action. This characteristic aligns perfectly with global initiatives for sustainable and safe material solutions.

The Premium White Pigment for Superior Opacity

Transform your products with Titanium Dioxide (TiO2), the industry-leading white pigment that delivers unmatched opacity, brightness, and UV protection across diverse applications.

Understanding TiO2 (Titanium Dioxide)

Titanium Dioxide represents the gold standard in white pigments, offering superior opacity and whiteness that sets it apart from all other white pigments in industrial use. This inorganic compound's exceptional performance stems from its unique crystal structure and high refractive index, which enable it to scatter visible light more effectively than any other white pigment. Through sophisticated manufacturing processes, both anatase and rutile crystal forms are produced, each optimized for specific applications and performance requirements.

The material's extraordinary effectiveness as a white pigment comes from its optimal particle size distribution, typically centered around 0.3 microns, which maximizes light scattering efficiency. This characteristic, combined with its high refractive index, enables titanium dioxide to provide excellent hiding power even at relatively low concentrations. Additionally, its chemical inertness and UV-resistant properties make it an ideal choice for applications requiring long-term durability and weather resistance.

Understanding Titanium Dioxide Grades and Properties

Rutile grades dominate commercial applications, offering superior opacity and UV resistance compared to anatase variants. These grades undergo surface treatments designed to enhance dispersibility and durability in specific applications. Aluminum and silicon oxide treatments improve weather resistance and dispersibility in paints, while organic surface treatments enhance compatibility in plastic applications.

Paint-grade titanium dioxide features carefully controlled particle size distributions and surface treatments optimized for different paint systems. Interior grades focus on maximum opacity and brightness, while exterior grades incorporate additional treatments to ensure weather durability and chalk resistance. The surface chemistry is precisely engineered to ensure optimal compatibility with various resin systems, from water-based to solvent-based formulations.

Plastic-grade variants are specifically engineered for excellent dispersibility in polymer systems. These grades often feature specialized surface treatments that enhance processing characteristics and prevent agglomeration during high-temperature processing. The careful control of particle size distribution ensures optimal balance between opacity and processing properties in the final compound.

Industry Applications and Performance

The paint and coatings industry represents the largest consumer of titanium dioxide, where its superior hiding power and brightness are essential for high-quality finishes. In architectural paints, it provides excellent coverage and long-term durability, while industrial coatings benefit from its chemical inertness and UV resistance. The material's ability to maintain its brightness and color stability over time makes it invaluable in premium coating applications.

Plastic manufacturers rely on titanium dioxide for both white coloration and UV protection in their products. Its high thermal stability allows processing across a wide range of temperatures without degradation, while its chemical inertness ensures long-term performance in the final product. From packaging materials to durable outdoor products, titanium dioxide provides essential functionality beyond simple white coloration.

The paper industry utilizes titanium dioxide to achieve high brightness and opacity in premium grades. Its superior light scattering efficiency enables the production of high-quality printing papers with excellent printability and visual appeal. The material's chemical stability ensures consistent performance throughout the paper's lifecycle.

Cosmetic and pharmaceutical applications benefit from titanium dioxide's safety profile and excellent UV protection properties. In sunscreens, it serves as a physical UV blocker, while in cosmetics, it provides opacity and brightness in various formulations. Its inert nature makes it particularly suitable for these sensitive applications.

The Versatile Mineral for Multi-Industry Solutions

Transform your products with Zinc Oxide (ZnO), the multifunctional compound that combines unique physical and chemical properties for diverse industrial applications.

Understanding ZnO (Zinc Oxide)

Zinc Oxide represents a remarkable inorganic compound that offers an exceptional combination of chemical and physical properties valued across multiple industries. This white crystalline powder is produced through sophisticated processes that control particle size, surface area, and purity to meet specific application requirements. Its unique amphoteric nature, allowing it to react with both acids and bases, combined with its semiconductor properties and UV absorption capabilities, makes it an extraordinarily versatile material in modern industry.

The material's effectiveness stems from its fundamental crystal structure and controlled particle morphology, which can be tailored during manufacturing to optimize specific properties. Whether produced through the French (indirect) or American (direct) process, each manufacturing method yields products with characteristics suited to particular end uses. The ability to control particle size distribution and surface characteristics enables manufacturers to create grades optimized for specific applications, from ultra-fine particles for transparent UV protection to larger particles for rubber compounding.

Understanding Zinc Oxide Grades and Properties

Rubber-grade zinc oxide features carefully controlled particle size and surface area characteristics optimal for vulcanization activation. These grades typically offer high chemical purity and consistent physical properties essential for rubber processing. The material's role as a vulcanization activator is complemented by its ability to improve heat conductivity and enhance various physical properties in rubber compounds.

Pharmaceutical and cosmetic grades meet stringent purity requirements and particle size specifications. These grades undergo additional processing and quality control measures to ensure compliance with relevant pharmacopeial standards. Their controlled morphology and high purity make them ideal for applications ranging from topical medications to sunscreen formulations.

Industrial grades serve diverse applications from ceramics to paints, offering balanced cost-effectiveness and performance. These grades provide essential functionality in various applications, from enhancing process efficiency to improving end-product properties. The careful control of particle size distribution and surface chemistry ensures optimal performance in each specific application.

Industry Applications and Performance

The rubber industry represents a major consumer of zinc oxide, where it plays a crucial role in the vulcanization process. As an activator, it enables efficient cross-linking of rubber molecules, while also contributing to heat dissipation and reinforcement. Its ability to improve processing characteristics and enhance final product properties makes it indispensable in both natural and synthetic rubber compounds.

In pharmaceutical and personal care applications, zinc oxide demonstrates its versatility through multiple functionalities. Its mild antiseptic properties and skin protection capabilities make it valuable in various topical preparations. In sunscreens, it serves as an effective physical UV blocker, providing broad-spectrum protection while remaining gentle on sensitive skin.

The ceramic industry utilizes zinc oxide's unique properties in glazes and electronic ceramics. Its role in modifying the melting characteristics of glazes and its contribution to electrical properties in varistors showcase the material's versatility. The controlled addition of zinc oxide enables manufacturers to achieve specific technical and aesthetic properties in their products.

Paint and coating manufacturers leverage zinc oxide's UV-protective properties and anti-corrosive characteristics. In exterior coatings, it contributes to weather resistance and helps prevent degradation of the polymer matrix. Its use in anti-corrosive primers, particularly for metal surfaces, demonstrates its protective capabilities.

Nature's Versatile Mineral Solution

Transform your products with Calcium Carbonate (CaCO₃), the naturally occurring mineral that brings superior performance and cost-effectiveness to countless applications.

Understanding Calcium Carbonate

Calcium Carbonate represents nature's perfect balance of functionality and abundance. This remarkable mineral occurs naturally in various crystalline forms, with calcite being the most stable and commercially significant. The material's effectiveness stems from its unique crystal structure, which provides excellent optical properties and mechanical strength. When processed to precise specifications, Calcium Carbonate delivers outstanding performance as both a filler and functional additive, enhancing product properties while offering significant economic advantages.

Beyond its basic composition, Calcium Carbonate's value lies in its ability to modify and improve the properties of host materials. Its high brightness and opacity make it invaluable in applications requiring superior aesthetics, while its controlled particle size distribution enables precise property modification in various matrices. The material's natural origin also makes it environmentally sustainable, aligning perfectly with modern requirements for eco-friendly industrial solutions.

Calcium Carbonate Classifications

Ground Calcium Carbonate (GCC)

Our GCC grades emerge from carefully selected natural limestone and marble deposits. Through advanced processing techniques, we produce varieties with different particle size distributions and surface characteristics. The coarser grades excel in applications requiring bulk filling and mechanical reinforcement, while finer grades deliver superior optical properties and surface finish. Each grade undergoes rigorous quality control to ensure consistent performance across applications.

Precipitated Calcium Carbonate (PCC)

Our PCC grades represent the pinnacle of controlled mineral synthesis. Through precise precipitation processes, we create particles with specific morphologies and sizes. These grades offer exceptional purity and controlled characteristics, making them ideal for demanding applications in paper, pharmaceuticals, and high-end polymers. The carefully controlled crystal structure ensures optimal performance in applications requiring superior brightness and specific particle morphology.

Surface Modified Grades

Developed for enhanced compatibility with various matrices, our surface-treated grades feature carefully modified surface chemistry. These specialized products offer improved dispersion characteristics and higher loading capabilities in polymer systems. The surface treatment enables better integration with host materials, resulting in superior mechanical properties and processing characteristics.

Nano Calcium Carbonate

Our nano-grade products push the boundaries of mineral technology. With particle sizes in the nanometer range, these grades deliver unique performance benefits in specialized applications. The ultra-fine particle size enables exceptional reinforcement properties and unique surface characteristics, opening new possibilities in advanced materials development.

Applications in Modern Industry

Calcium Carbonate's versatility shines across diverse industrial sectors. In the paper industry, it serves both as a filler and coating pigment, enhancing optical properties while reducing production costs. The material's controlled particle size and brightness characteristics enable paper manufacturers to achieve optimal print quality and opacity while maintaining excellent runnability on paper machines.

The plastics industry extensively utilizes Calcium Carbonate for its ability to enhance mechanical properties while reducing costs. When properly incorporated into polymer systems, it improves impact strength and surface finish while maintaining dimensional stability. The material's natural origin makes it particularly valuable in applications requiring environmental sustainability.

In the paint and coatings sector, Calcium Carbonate plays multiple roles as an extending pigment and functional filler. Its high brightness and controlled particle size distribution enable formulators to achieve desired opacity and film properties while optimizing cost-performance ratios. The material's chemical inertness ensures long-term stability in various coating systems.

The construction industry demonstrates Calcium Carbonate's importance through applications ranging from cement to decorative materials. Its use in construction materials enhances workability and durability while providing aesthetic benefits. The material's abundance and cost-effectiveness make it indispensable in modern construction practices.

Advanced Lightweighting Technology

Revolutionize your material design with Expandable Microspheres, the high-performance lightweight fillers that deliver controlled expansion, superior insulation, and unmatched versatility across multiple grades for optimized processing and product performance.

Understanding Expandable Microspheres

Expandable microspheres are innovative, thermoplastic hollow spheres filled with hydrocarbon-based blowing agents. When exposed to heat, they expand dramatically, forming closed-cell structures that reduce density and improve insulation without compromising strength. These microspheres are used as lightweight fillers, blowing agents, and surface modifiers in a wide range of polymer applications.

The secret of their performance lies in their engineered shell and encapsulated gas. Upon heating, the gas expands and softens the polymer shell, causing the microsphere to increase in volume by up to 60 times. This expansion provides a highly controlled and uniform foaming effect—ideal for lightweighting, texture control, and energy absorption across industries.

Expandable microspheres are valued for their low density, chemical resistance, excellent process compatibility, and environmentally friendly formulation. They offer a smart solution for replacing heavier, bulkier fillers and are widely used to reduce material consumption and improve product functionality.

Expandable Microspheres Commercial Grades

High-Temperature Grade

Designed for processes requiring higher activation temperatures, this grade offers:

• Controlled expansion at elevated temperatures (150–220°C)
• Ideal compatibility with engineering polymers
• Excellent thermal stability and dispersion
• Perfect for extrusion and high-temperature molding applications

The high-temperature grade is particularly effective in automotive plastics, engineered foams, and high-performance sealants.

Low-Temperature Grade

Optimized for processes with lower processing heat, our low-temperature grade provides:

• Expansion temperatures as low as 80°C
• Fast response for quick-cycle manufacturing
• Excellent for low-temp thermoplastics and water-based systems
• Uniform expansion for smooth surface finishes

This grade is ideal for coatings, paper, packaging foams, and water-based formulations.

Pre-Expanded Microspheres

These are thermally expanded microspheres used as ultra-lightweight fillers. Key features include:

• No further heat expansion required
• Extremely low bulk density
• Improved texture and surface properties
• High compressibility and recovery

Pre-expanded microspheres are widely used in synthetic leather, sealants, spackling compounds, and elastomeric coatings.

Surface-Modified Grade

Formulated with tailored surface treatments to enhance compatibility with specific matrices. This grade delivers:

• Improved dispersion in polar and non-polar systems
• Enhanced bonding with resins and adhesives
• Customizable interaction with target substrates
• Excellent performance in composite and reactive systems

Used in specialty coatings, adhesives, and engineered thermosets.

Expandable Microspheres Applications in Modern Industry

Expandable microspheres serve as a go-to solution in numerous industries. In the automotive sector, they reduce part weight while maintaining strength in applications like body fillers, sealants, and underbody coatings. Their ability to improve impact resistance and lower weight makes them a perfect fit for OEMs pursuing fuel efficiency.

In construction materials, microspheres are used to produce lightweight fillers, insulating foams, and textured wall coatings. Their contribution to lower thermal conductivity and reduced material usage translates directly into energy and cost savings.

The coatings and adhesives industry benefits from microspheres' ability to reduce density, improve texture, and add compressibility to surfaces—ideal for wall paints, elastomeric roof coatings, and caulks.

In consumer goods, from shoe soles to cosmetic packaging, microspheres offer comfort, reduced weight, and aesthetic enhancements, making products lighter, softer, and more energy-efficient to produce.

Safety Note:
Expandable microspheres must be handled in accordance with standard safety guidelines for thermoplastic additives. Always consult technical datasheets and safety documentation provided for each grade. Our team is available to support safe and effective integration into your production lines.

Foaming Agents: Lighten the Load, Power the Performance.

Unlock the next level of polymer processing with our range of Foaming Agents—engineered to deliver superior cell structure, reduced density, and optimized processing performance across diverse applications.

Understanding Foaming Agents

Foaming agents are critical additives in modern polymer manufacturing, designed to introduce a controlled cellular structure within materials. These agents decompose under specific processing conditions to release gases, creating uniform foam that enhances product properties such as insulation, cushioning, and weight reduction.

The versatility of foaming agents lies in their ability to generate finely controlled microcellular structures. By carefully managing gas release and dispersion, manufacturers can achieve desired foam density, improved mechanical properties, and enhanced surface finishes across a variety of substrates including plastics, rubber, and composites.

Foaming Agent Commercial Grades

Endothermic Foaming Agents

Our endothermic foaming agents decompose by absorbing heat, ensuring controlled gas generation and smooth surface finishes. Key benefits include:

• Uniform and fine cell structure
• Reduced sink marks and warpage
• Improved thermal stability
• Environmentally friendly decomposition

These agents are ideal for applications where surface quality and precise control over foam density are paramount, such as in packaging, automotive interiors, and consumer goods.

Exothermic Foaming Agents

Exothermic foaming agents decompose by releasing heat, producing rapid gas generation for high-efficiency foaming. Key features include:

• Rapid and high-volume gas release
• Suitable for thicker sections
• Enhanced productivity due to faster cycle times
• Strong foaming performance at lower dosages

These agents excel in applications requiring robust foaming performance, including structural foams, insulation boards, and footwear manufacturing.

Blended Foaming Agents

Our blended foaming agents combine the advantages of both endothermic and exothermic mechanisms to deliver balanced performance. Benefits include:

• Controlled foam expansion with smooth surface finish
• Reduced internal stress and warpage
• Versatile application range
• Enhanced processing window

These blends are perfect for applications demanding both aesthetic quality and functional performance, such as in electronics housings, automotive trims, and high-quality packaging.

Ultra-Fine Foaming Agents

Engineered for applications that require ultra-fine, microcellular structures, our ultra-fine foaming agents provide:

• Extremely fine and uniform cell structure
• Enhanced mechanical properties
• Precise density control
• Excellent dispersion in polymer matrices

This grade is particularly suited for lightweight structural components, advanced insulation materials, and premium consumer products.

Foaming Agent Applications in Modern Industry

Foaming agents are pivotal in a wide array of industries. In packaging, endothermic agents help produce lightweight, impact-resistant materials with superior cushioning properties. The automotive industry leverages exothermic agents for creating energy-absorbing foams used in safety components and lightweight interiors.

Footwear manufacturers rely on foaming agents to produce durable, lightweight soles with excellent shock absorption, while appliance manufacturers use ultra-fine foaming agents to create advanced insulation panels with minimal heat loss.

Construction industries benefit from blended foaming agents for producing structural panels and insulation boards that balance strength and thermal efficiency.

Safety Note: Proper handling and processing conditions are essential for the safe and effective use of foaming agents. We provide comprehensive technical support, safety data, and processing guidelines to ensure optimal performance and safety in your production environment.

Advanced Crosslinking Technology

Transform your polymer crosslinking processes with DCP (Dicumyl Peroxide), the high-performance organic peroxide that delivers efficient and controlled crosslinking across multiple grades for optimized processing performance.

Understanding DCP (Dicumyl Peroxide)

DCP stands at the forefront of crosslinking technology as one of the most widely used organic peroxides in polymer processing worldwide. The molecular structure of DCP, featuring two cumyl groups joined by a peroxide bond, provides the perfect balance of stability during processing and controlled decomposition during crosslinking. This unique characteristic makes DCP an invaluable tool in modern polymer manufacturing.

The success of DCP in crosslinking applications comes from its predictable behavior and reliable performance. When exposed to specific temperature ranges, DCP generates free radicals in a controlled manner, creating strong chemical bonds between polymer chains. This predictable decomposition profile allows manufacturers to achieve precise crosslinking levels, resulting in consistent product quality across various applications.

DCP Commercial Grades

DCP 99% Grade

Our highest purity DCP grade contains 99% active Dicumyl Peroxide, engineered for maximum crosslinking performance. This premium grade delivers:

• Optimal crosslinking efficiency for demanding applications
• Superior purity for critical processes
• Precise decomposition control
• Maximum active oxygen content
  The 99% DCP grade excels in applications where pure crosslinking power and minimal interference are essential, such as wire and cable insulation manufacturing.

DCP 40% Grade

Our standard DCP grade features 40% active peroxide content on carrier materials, offering the most versatile solution for general crosslinking applications. This widely-used grade provides:

• Enhanced handling safety through dilution
• Excellent dispersion in polymer systems
• Consistent processing performance
• Cost-effective crosslinking solution
  The 40% DCP grade serves as the industry standard for rubber compounding and general polymer modification processes.

DCP Low-Odor Grade

Our specialized low-odor DCP grade addresses workplace environmental concerns while maintaining crosslinking efficiency. This innovative formulation offers:

• Minimized phenolic odor during processing
• Improved workplace environment
• Maintained crosslinking performance
• Better acceptance in confined spaces
  The low-odor DCP grade particularly suits applications in enclosed manufacturing environments where air quality is a priority.

DCP Fine Powder Grade

Our fine powder DCP grade features optimized particle size distribution for superior mixing performance. This specialized grade delivers:

• Superior dispersion characteristics
• Uniform crosslinking distribution
• Enhanced processing efficiency
• Precise property control
  The fine powder DCP grade particularly benefits thin-wall applications and products requiring exact property specifications.

DCP Applications in Modern Industry

DCP demonstrates remarkable versatility across industrial applications, with each grade serving specific market needs. In the wire and cable industry, 99% DCP leads the way in crosslinking polyethylene insulation, ensuring optimal electrical properties and long-term performance reliability.

Rubber manufacturers rely heavily on 40% DCP for crosslinking elastomers, especially in EPDM and EPR compounds. The controlled concentration ensures uniform crosslinking while maintaining safe handling characteristics in production environments.

The automotive sector utilizes various DCP grades for manufacturing crosslinked components. From engine compartment parts to weatherstripping compounds, DCP provides the necessary crosslinking performance for demanding automotive applications.

The polymer modification industry depends on DCP for developing enhanced materials through reactive processing. Whether improving temperature resistance or enhancing mechanical properties, DCP's controlled reactivity enables precise property modifications.

Safety Note: All DCP grades must be handled according to established safety protocols for organic peroxides. We provide grade-specific safety documentation and technical guidance to ensure safe implementation in your processes.