ThermoPlastic Elastomer

Thermoplastic elastomers (TPE) are a unique combination of properties of both plastics and rubber. These materials have both the flexibility and elasticity of rubber and the thermal processability of plastics. This unique combination has made TPEs one of the most popular materials in various industries.

TPE are typically composed of two or more polymers linked together in a block or branched structure. This structure allows them to have both elastomeric and thermoplastic properties.

Applications of TPEs

TPEs are used in a variety of industries due to their unique properties, including:

Automotive industry: Interior parts of cars such as gear levers, seat covers, and under-hood parts.

Medical industry: Medical gloves, medical tubing, and other medical equipment.

Sports industry: Athletic shoes, balls, and other sports equipment.

Packaging: Flexible packaging, airbags, and protective packaging.

Home use: Home appliances, toys, and other consumer products.

Electronic industry: Protective coverings for cables and electronic components.

Category: Polymer

Description

ThermoPlastic Elastomer

Additional information

Applications	bags , packaging , Electronics , General Injection,Home Appliances Casing , Medical products

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Acrylonitrile Butadiene Styrene (ABS)

Polymer, PS

ABS is a terpolymer made by polymerizing styrene and acrylonitrile in the presence of polybutadiene. The proportions can vary from 15% to 35% acrylonitrile, 5% to 30% butadiene and 40% to 60% styrene. ABS is most commonly polymerised through the emulsification process or the expert art of combining multiple products that don’t typically combine into a single product.

Structure

ABS is a long chain of polybutadiene crisscrossed with shorter chains of poly(styrene-co-acrylonitrile).

Properties

The combination of polymers gives ABS a unique set of properties that make it highly desirable for various applications. The acrylonitrile component contributes to the material's chemical and thermal resistance, while the butadiene component enhances its impact strength and toughness. Lastly, the styrene component imparts rigidity and processability to the ABS material. ABS tensile strength ranges from 30 to 60 megapascals (MPa), ensuring structural integrity and load-bearing capabilities. also ABS materials demonstrate good resistance to a wide range of chemicals, including acids, alkalis, and various solvents.

Applications

1.Automotive Industry: ABS is extensively used in the automotive industry for both interior and exterior components. Its excellent impact resistance, durability, and ease of processing make it suitable for applications such as dashboard panels, door trims, interior handles, and exterior body parts. 2.Consumer Goods: It is commonly used for manufacturing household appliances, including vacuum cleaners, kitchen appliances, and home entertainment systems. ABS's toughness, impact resistance, and electrical insulation properties make it suitable for these applications. 3.Medical and Healthcare: ABS materials are increasingly used in the medical and healthcare sectors. Their biocompatibility, ease of sterilization, and resistance to chemicals make them suitable for applications such as medical equipment housings, handles, and trays. ABS's dimensional stability and durability ensure that medical devices withstand repeated sterilization processes without compromising their performance. 3.Industrial and Manufacturing: ABS materials find numerous applications in the industrial and manufacturing sectors. They are commonly used in the production of protective equipment, tool handles, machinery components, and housings for industrial machinery. ABS's excellent mechanical properties, including impact resistance and dimensional stability, make it suitable for demanding industrial environments.

Advantages

reasonable production costs
ability to withstand being heated and cooled multiple times
suitable for recycling
high Impact resistance
Chemical resistance
High Strength and stiffness

Disadvantages

Flammability
Poor weather resistance
Limited heat resistance

Acrylonitrile Styrene Acrylate (ASA)

Polymer, PS

ASA is a copolymer of SAN and acrylic rubber, and it is a highly functional plastic with excellent weatherability while maintaining most of the advantages of ABS. Thanks to its excellent retention of physical properties and appearances in outdoor applications for a long time, it is used as a material for automobile exterior, construction and furniture finishing sheet, etc.

Acrylonitrile Styrene Acrylate structure

ASA is typically formed by grafting acrylonitrile and styrene onto an acrylic ester elastomer backbone. The acrylic ester phase provides the material with flexibility and impact resistance, while the acrylonitrile and styrene phases contribute to rigidity, chemical resistance, and surface finish.

Acrylonitrile Styrene Acrylate properties

Acrylonitrile-Styrene-Acrylate (ASA) polymer exhibits a combination of properties that make it well-suited for outdoor and demanding applications. Acrylonitrile Styrene Acrylate (ASA) polymer is a thermoplastic known for its excellent weather resistance, high impact strength, and UV stability, making it ideal for outdoor applications. It combines the toughness of acrylonitrile, the rigidity of styrene, and the weather-resistant properties of acrylic ester, resulting in a material that maintains its color, gloss, and mechanical integrity even under prolonged exposure to sunlight and harsh environmental conditions. ASA is resistant to chemicals, heat, and environmental stress cracking, and it exhibits good processability, enabling it to be molded into complex shapes. Its durability and aesthetic qualities make it suitable for use in automotive parts, outdoor furniture, and building materials.

Application

Automotive Industry

Exterior Components: Used for manufacturing exterior parts like side view mirrors, radiator grilles, and trims due to its resistance to UV radiation and harsh weather conditions.
Interior Components: Employed in dashboards, panels, and other interior parts requiring durability and aesthetic appeal.

Building and Construction

Roofing and Cladding: ASA is used in roofing sheets, siding, and cladding materials for its resistance to fading and cracking when exposed to sunlight.
Windows and Doors: Frames and profiles made of ASA are durable and maintain their color over time.

Electrical and Electronics

Casing and Enclosures: ASA is used in the production of enclosures for electronic devices, electrical components, and appliances due to its impact resistance and aesthetic surface finish.
Connectors and Insulators: The polymer is valued for its insulating properties and stability.

Consumer Goods

Outdoor Furniture: Widely used for chairs, tables, and other outdoor furniture because it retains color and strength under prolonged exposure to sunlight and rain.
Household Items: Utilized in kitchen appliances, vacuum cleaners, and other durable goods.

Three-D Printing

Filament Material: ASA is a popular material for 3D printing, especially for outdoor applications, as it offers better UV resistance compared to ABS.

Advantages

High impact strength
Good Processability
Weather Resistance
Color and Gloss Retention
Durability

Disadvantages

Limited High-Temperature Resistance
Flammability
Lower Strength Compared to Metals
Environmental Impact

Bottle Grade

Polymer, PET

Polyethylene Terephthalate (PET) is a versatile thermoplastic polymer widely used in the packaging industry, particularly for bottle manufacturing. PET bottle-grade resin is a specialized type of PET formulated to meet the requirements of beverage, food, and pharmaceutical packaging. One of the key advantages of PET bottle-grade material is its food-safe quality, ensuring compliance with global regulatory standards like those set by the FDA (Food and Drug Administration) and EFSA (European Food Safety Authority). With growing concerns about sustainability, PET bottle-grade materials are evolving to incorporate higher percentages of recycled content while maintaining their structural integrity and safety.

1.Structure

PET (Polyethylene Terephthalate) is a semi-crystalline thermoplastic polymer belonging to the polyester family. The structure of PET bottle-grade material is based on long-chain polymer molecules formed through polycondensation of terephthalic acid (TPA) and ethylene glycol (EG). The repeating unit in PET is: {-O-CH_2-CH_2-O-CO-C_6H_4-CO-} This structure consists of:

Ester groups (-COO-) → Provide flexibility and durability
Benzene rings (C₆H₄) → Contribute to rigidity and strength
Ether bonds (-O-) → Help in processability and thermal stability

2.Properties

PET (Polyethylene Terephthalate) bottle-grade resin possesses a unique combination of physical, mechanical, thermal, chemical, and barrier properties, making it the preferred material for beverage and food packaging. It is highly transparent, lightweight, and has a smooth surface, providing an attractive and glossy finish for bottles. Mechanically, PET is strong, tough, and resistant to impact and stress-cracking, ensuring durability during handling and transportation. Its flexibility allows easy molding into various bottle shapes while maintaining high stiffness for structural integrity. Thermally, PET has a glass transition temperature of approximately 75–80°C and a melting point of around 250–265°C, making it stable under moderate heat conditions. Chemically, it exhibits excellent resistance to acids, oils, and solvents while maintaining hydrolytic stability in humid environments. Additionally, PET is non-toxic and food-safe, meeting regulatory standards such as those set by the FDA and EFSA. Its superior barrier properties help preserve the quality of packaged products by limiting oxygen and carbon dioxide permeability and preventing moisture absorption.A key advantage of PET bottle-grade material is its recyclability, as it is 100% recyclable and can be processed into recycled PET (rPET), promoting sustainability and reducing environmental impact. These properties collectively make PET an ideal choice for water bottles, soft drink containers, juice packaging, and other consumer goods that require clarity, strength, and food safety.

3. Applications of Bottle Grade PET

Bottle-grade PET is used across multiple industries due to its versatility and safety.

1. Food & Beverage Industry

Soft Drink & Water Bottles – Carbonated and non-carbonated beverages Dairy & Juice Containers – Milk, yogurt drinks, and fresh juices Edible Oil & Condiment Packaging – Cooking oils, sauces, and vinegar

2 Pharmaceutical & Healthcare

Medicine Bottles – Liquid syrups and vitamin supplements Personal Care Packaging – Shampoo, lotion, and cosmetic containers

3 Industrial & Chemical Applications

Household & Industrial Chemicals – Detergents, cleaning agents, and solvents Laboratory Containers – Sterile packaging for chemicals and reagents

4 Sustainable Packaging & Recycled PET Products

Recycled PET Bottles – Used in textiles, automotive parts, and reusable packaging Eco-Friendly Packaging – Biodegradable and sustainable bottle solutions

4. Advantages of Bottle Grade PET

Bottle-grade PET offers multiple benefits, making it the preferred material for packaging. Cost-Effective: Lower production costs compared to glass and metal Shatterproof & Durable: Reduces breakage risks in transportation and usage Lightweight: Decreases shipping weight and carbon footprint Versatile & Moldable: Easily shaped into different bottle designs Safe for Food Contact: Approved by FDA and EFSA for direct food and beverage use Eco-Friendly: Supports recycling and sustainable initiatives

5. Disadvantages of Bottle Grade PET

Despite its benefits, bottle-grade PET has some drawbacks: Environmental Concerns: Improper disposal leads to plastic pollution Heat Sensitivity: Deforms at high temperatures, limiting hot-fill applications Gas Permeability: Less effective than glass in preventing oxygen ingress Chemical Leaching (Low Risk): May release trace amounts of antimony oxide under extreme conditions Recycling Challenges: Requires advanced sorting and processing to maintain quality

Ethylene Vinyl Acetate/ VAC- copolymers (EVA)

Thermoplastics, Polymer

Ethylene Vinyl Acetate (EVA) is a copolymer composed of ethylene and vinyl acetate (VAC). The properties of EVA vary depending on the ratio of these two components, with vinyl acetate content typically ranging from 1% to 40% by weight.

Structure

Ethylene Vinyl Acetate (EVA) is a copolymer composed of ethylene and vinyl acetate (VAC) monomers, with its structure characterized by randomly distributed vinyl acetate units within a polyethylene-like backbone. The proportion of vinyl acetate in the copolymer significantly influences its properties, with lower vinyl acetate content (typically below 10%) resulting in a more rigid, polyethylene-like material, while higher vinyl acetate content (above 40%) leads to a more rubbery and flexible structure. The presence of vinyl acetate disrupts the crystallinity of polyethylene, enhancing the copolymer’s flexibility, impact resistance, and transparency. EVA exhibits a balance between thermoplastic and elastomeric properties, making it widely used in applications such as adhesives, foams, films, and footwear. Its molecular structure provides excellent toughness, stress-crack resistance, and adhesion to various substrates, making it a versatile polymer in multiple industries.

Properties

Ethylene Vinyl Acetate (EVA) copolymers exhibit a unique combination of properties that vary based on the vinyl acetate (VAC) content. They offer excellent flexibility, elasticity, and toughness, with higher VAC content leading to increased softness, transparency, and impact resistance. EVA has low-temperature resistance, maintaining flexibility even at sub-zero temperatures, and demonstrates good stress-crack resistance. It is also lightweight, has a low density, and provides excellent adhesion to various substrates, making it ideal for adhesives and coatings. Additionally, EVA is resistant to UV radiation and environmental stress, contributing to its durability in outdoor applications. It has good chemical resistance to water, oils, and certain solvents, though it may degrade under high temperatures or prolonged exposure to strong chemicals. The copolymer is also non-toxic, making it suitable for medical and food-contact applications. Its thermal and electrical insulation properties further enhance its versatility in industrial, packaging, and footwear applications.

Applications of Ethylene Vinyl Acetate (EVA) Copolymers:

Footwear: Used in midsoles, insoles, and outsoles for cushioning and flexibility.
Adhesives: Hot melt adhesives in packaging, bookbinding, and woodworking.
Foams: Sports mats, yoga mats, and padding materials.
Packaging: Film applications for food packaging and medical films.
Automotive: Interior trims, soundproofing, and under-the-hood components.
Solar Panels: Encapsulation of photovoltaic cells for durability and insulation.
Wire & Cable Insulation: Used in electrical applications due to flexibility and insulation properties.
Toys & Consumer Goods: Soft, flexible materials for safety and durability.

Advantages of EVA Copolymers:

Flexibility & Softness: Offers rubber-like elasticity and comfort.
Lightweight: Reduces overall product weight while maintaining durability.
Good Adhesion: Bonds well with various substrates, making it ideal for adhesives.
Weather & UV Resistance: Suitable for outdoor applications like solar panels and footwear.
Chemical Resistance: Resists many chemicals, oils, and solvents.
Low-Temperature Performance: Maintains flexibility in cold conditions.
Non-Toxic & Safe: Used in food packaging and medical applications.

Disadvantages of EVA Copolymers:

Lower Heat Resistance: Can degrade or deform at high temperatures.
Lower Mechanical Strength: Compared to other thermoplastics like polyethylene or polypropylene.
Aging & Degradation: May degrade over time when exposed to UV radiation or harsh conditions.
Flammability: Not inherently flame-retardant without additives.
Cost: Can be more expensive than some alternative plastics like PVC.

Expandable PolyStyrene (EPS)

Polymer, PS

Expanded Polystyrene (EPS) is a rigid, closed cell, thermoplastic foam material produced from solid beads of polystyrene, which is polymerised from styrene monomer and contains an expansion gas (pentane) dissolved within the polystyrene bead. Each solid polystyrene bead contains small amounts of gas which expand when heat (in the form of steam) is applied, thus forming closed cells of EPS. These expanded cells occupy approximately 40 times the volume of the original polystyrene bead, and so with a second heat treatment using a mould, large EPS blocks can be moulded into specific customised shapes.

Expanded PolyStyrene structure

The structure of Expanded Polystyrene (EPS) consists of tiny, closed-cell foam beads made of polystyrene. These beads are expanded using heat, causing them to expand up to 50 times their original size. Also each bead contains air pockets.

Expanded PolyStyrene properties

Expanded polystyrene (EPS) is found to be the most commonly used polymer core. This is because it is lightweight, resistant to moisture and also it has a long life. Studies have concluded that softening of EPS starts when exposed to temperatures ranging from 100°C to 120°C. In the process of flashovers, EPS melted about 160°C and then vaporized, producing poisonous gases at a temperature of 275°C. EPS is an inert, low density hydrocarbon-derived thermoplastic which contains several spherical beads with 2 percent polystyrene and 98 percent air

Expanded PolyStyrene applications

Building and Construction-EPS is widely used in the building and construction industry due to its insulation properties. It can be used:

As insulated panel systems for facades, walls, roofs and floors in buildings.
As flotation material in the construction of marinas and pontoons.
As a lightweight fill in road and railway construction.

Food Packaging- EPS can be used:

in the packaging of foodstuffs such as seafood, fruit, and vegetables.
to produce food service containers like drink cups, food trays, and clamshell containers.

Industrial Packaging – EPS provides industrial products complete protection and safety from risk in transport and handling. Other Applications – EPS can be molded into any shape. For example, sports helmets, infant car seats, chairs, seating in sports cars, and load bearing structurally insulated panels.

expanded polystyrene advantages

lightweight
water-resistant
easily manufactured
Energy Efficient
high Durability and Longevity

expanded polystyrene disadvantages

vulnerability to compression
limited fire resistance
non-biodegradable

High Density PolyEthylene Film (HDPE)

Polymer, High-Density Polyethylene

High Density Polyethylene (HDPE for short) is a thermoplastic polymer derived from petroleum with a generalized chemical formula (C2H4)n. The HDPE formula represents the repeating monomer unit of ethylene and forms a poly-ethylene molecular chain. HDPE is distinct from other forms of polyethylene in that its side chain branching frequency is lower than other polyethylene types, where hdpe film is commonly referred to as a “linear” chain. This linear structure allows high density polyethylene film to pack together more tightly and is the reason for its impressive material characteristics.

Structure

The structure of High-Density Polyethylene (HDPE) is characterized by long, linear chains of repeating ethylene units (–CH₂–CH₂–) with minimal or negligible branching. This linear configuration allows the polymer chains to pack closely together, resulting in a high degree of crystallinity (up to 80-90%) and a dense molecular arrangement. The compact structure enhances intermolecular van der Waals forces, giving HDPE its high tensile strength, rigidity, and chemical resistance. The lack of branching, achieved through polymerization methods like Ziegler-Natta or metallocene catalysis, is a defining feature that differentiates HDPE from other polyethylene types, such as Low-Density Polyethylene (LDPE). This tightly packed and highly organized structure makes HDPE a robust and durable material, widely used in industrial and consumer applications.

Properties

High Strength-to-Density Ratio: While lightweight, HDPE exhibits excellent tensile strength, making it suitable for heavy-duty applications.
Chemical Resistance: It is resistant to a wide range of chemicals, acids, and bases, ensuring durability in corrosive environments.
Low Moisture Absorption: HDPE’s low water absorption ensures its effectiveness in moisture-prone applications.
Flexibility and Impact Resistance: It withstands impact and environmental stress, even under extreme conditions.
Thermal Resistance: HDPE maintains integrity in a broad temperature range, making it ideal for outdoor and industrial uses.

Applications

HDPE plastic is used in a laundry list of applications, as it is currently one of the most versatile plastic materials worldwide. Its strength, impact and corrosion resistance, chemical profile, and other valuable characteristics make it an ideal product material for various industries. Below is a brief list of some of the many uses of HDPE plastic:

Corrosion-resistant piping, HDPE sheet, and stock material
Fuel tanks
Food and beverage containers, plastic bottles, milk jugs, cups, etc.
Shampoo/conditioner bottles, ointment tubes, personal care product containers, etc.
Trash cans, recycle bins, plastic containers, etc.
Bread bags, cereal box liners, food storage containers, etc.
Laundry detergent bottles
Recycled plastic lumber and composites
Medical equipment
3D printing filament
Boating components
Coax cable insulators
Sewage mains
Pyrotechnic components

and many, many more applications.

Advantages

High strength-to-weight ratio
Low friction coefficient and low moisture absorption
High impact strength, resistant to dents and scratches
Mold, mildew, rotting, mineral acids/bases, soil, and weather-resistant
Resistant to chemicals, water, solvents, acids, detergents, and cleaning fluids
Very malleable when heated and experiences medium to low shrinkage
Easily recycled
Can be sterilized via boiling, does not harbor bacteria well, and is dishwasher safe
Replaces heavier materials in some applications
Cost-effective

Disadvantages

In certain forms, it can be flammable as it is a petroleum-based product
Exhibits high thermal expansion
Weak to oxidizers and chlorinated hydrocarbons
Difficult to bond
Sensitive to stress-cracking in suboptimal environments

polypropylene (PP Textile)

Polymer, PP

Polypropylene (PP) textile grade refers to a specialized form of polypropylene resin engineered for textile applications. It is a lightweight, synthetic polymer that offers durability, chemical resistance, and cost-effectiveness. This grade of PP is designed specifically for fiber production, which is then converted into woven, nonwoven, or knitted fabrics for various applications.

Structure

Polypropylene (PP) textile grade is a lightweight, semi-crystalline thermoplastic polymer composed of repeating propylene (C₃H₆) units. It is primarily found in the isotactic form, where the methyl (-CH₃) groups are aligned on the same side of the polymer chain, resulting in high crystallinity (50-70%) and enhanced mechanical properties. This structure gives polypropylene excellent tensile strength, flexibility, and durability, making it suitable for various textile applications. With a low density of around 0.90-0.91 g/cm³, it is one of the lightest synthetic fibers available. Additionally, it is highly hydrophobic, meaning it does not absorb moisture, which makes it ideal for moisture-wicking applications.

Properties

Polypropylene (PP) textile grade is a lightweight and durable synthetic fiber with a unique combination of physical, mechanical, thermal, and chemical properties. It has a low density of around 0.90-0.91 g/cm³, making it one of the lightest synthetic fibers available, while its hydrophobic nature prevents moisture absorption, ensuring quick drying and resistance to mildew. The material exhibits high tensile strength, good elongation, and excellent abrasion resistance, making it ideal for applications requiring durability, such as ropes, carpets, and industrial fabrics. With a melting point of approximately 165°C, polypropylene offers good thermal stability, although it has a lower heat resistance compared to materials like polyester and nylon. Chemically, it is highly resistant to acids, alkalis, and organic solvents, but it has a low affinity for dyes, requiring special treatments for coloration. While it is susceptible to UV degradation, stabilizers can be added to improve its resistance to sunlight. Additionally, polypropylene is recyclable, resistant to mold and bacteria, and easy to process into various forms such as fibers and nonwoven fabrics. These properties make it a popular choice for applications in nonwoven textiles, medical fabrics, sportswear, upholstery, and filtration materials.

Applications

Polypropylene textile-grade fibers are widely used in various industries due to their lightweight, durability, and moisture-resistant properties. Some key applications include: Application

Nonwoven Fabrics: Used in medical textiles, surgical masks, hygiene products (diapers, sanitary pads), and geotextiles.
Ropes and Nets: High-strength and lightweight ropes for marine, fishing, and industrial uses.
Carpets and Upholstery: Used in household and commercial carpets due to stain resistance and durability.
Sportswear and Activewear: Moisture-wicking properties make it suitable for athletic clothing, socks, and thermal wear.
Filtration Fabrics: Employed in air and liquid filtration systems due to its chemical resistance.
Industrial Textiles: Reinforcement fabrics for automotive, construction, and packaging applications.

Advantages

Lightweight: One of the lightest synthetic fibers, making it comfortable and cost-effective in applications.
Moisture-Resistant: Does not absorb water, making it quick-drying and resistant to mold and mildew.
High Tensile Strength: Strong and durable, suitable for heavy-duty textile applications.
Chemical and Stain Resistance: Resists acids, alkalis, and organic solvents, ensuring longevity.
Thermal Insulation: Low thermal conductivity makes it useful in cold-weather garments.
Recyclable: Eco-friendly as it can be melted and reused.

Disadvantages

Low Dyeability: Has a low affinity for dyes, requiring special treatments to achieve vibrant colors.
UV Sensitivity: Prolonged exposure to sunlight can degrade the fibers unless UV stabilizers are added.
Low Heat Resistance: Begins to soften at relatively low temperatures (~165°C), limiting its use in high-temperature applications.

Limited Elastic Recovery: Does not return to its original shape as well as materials like polyester or spandex.

Suspension

Polymer, PVC

Polyvinyl Chloride (PVC) Suspension Grade is one of the most widely used thermoplastic polymers, produced through the suspension polymerization process. This method results in free-flowing, fine particles that can be processed into various products. Suspension PVC (S-PVC) is known for its versatility, chemical resistance, durability, and cost-effectiveness, making it a popular choice in multiple industries.

Structure

Polyvinyl Chloride (PVC) suspension grade is a thermoplastic polymer produced through the suspension polymerization process. In this method, vinyl chloride monomer (VCM) is dispersed in water with the help of suspending agents and polymerized using free radical initiators. The resulting PVC resin consists of fine, porous, and free-flowing particles with a relatively high molecular weight, making it suitable for a wide range of applications. The polymer structure is primarily composed of repeating vinyl chloride units (–CH₂–CHCl–), forming a linear polymer chain with varying degrees of polymerization. PVC suspension grade is widely used in the manufacturing of pipes, fittings, films, sheets, and rigid as well as flexible products due to its excellent mechanical strength, durability, and chemical resistance. The properties of the resin, such as particle size, porosity, and bulk density, can be adjusted by controlling the polymerization conditions, making it versatile for different industrial applications.

Properties

PVC suspension grade exhibits a combination of excellent physical, mechanical, and chemical properties, making it highly versatile for industrial applications. It appears as a white, free-flowing powder with a bulk density ranging from 0.45 to 0.65 g/cm³ and a particle size typically between 50-250 microns. Its high porosity allows for better plasticizer absorption, making it suitable for both rigid and flexible products. Mechanically, it offers good tensile strength, typically between 40-60 MPa, and moderate to high impact resistance, which can be enhanced with additives. Chemically, PVC suspension grade is highly resistant to acids, bases, and many chemicals, ensuring durability in harsh environments. It also has low water absorption, which provides excellent dimensional stability. However, it is susceptible to UV degradation, requiring stabilizers for outdoor applications. These properties make PVC suspension grade ideal for manufacturing pipes, profiles, films, and various other rigid and flexible products.

Applications

Construction Industry: Pipes, fittings, window profiles, doors, roofing sheets
Packaging Industry: Films, sheets, bottles
Automotive Industry: Interior trims, dashboards, wire insulation
Medical Sector: Tubing, blood bags, IV containers
Electrical Applications: Cable insulation, coatings