Chemicals & Plastics

Vinyl copolymer resin, similer to VYNS-3,VYHH,VYHD, Vinno H40/50 Vinyl terpolymer resin, similer to VMCH, Vinnol H15/45M Vinyl terpolymer resin, similer to VAGH, VAGD, VAGF, VROH, Vinnol E15/40A, Vinnol E22/48A Vinyl chloride and vinyl isobutyl ether copolymer, similer to MP-45,MP-25 benemarket@yahoo.com Vinyl chloride and vinyl acetate terpolymer resin VMCH-1---Dow VMCH Typical applications: marine and metal coatings, cans sealed coatings, aluminum foil varnish, adhesive for staple, shoe adhesive, floor paint, cement paint, silk screen printing and transfer ink. Hydroxyl-Modified Vinyl Chloride and Vinyl Acetate Terpolymer Resin VAGH-1---DOW VAGH VAGD-1---DOW VAGD VROH-1---DOW VROH Typical applications: Polyester gravure inks and anti-steam, boiled inks,wood and metal paint together with PU and Alkyd resin. Flexible packaging and binder in magnetic tape;General metal and container coatings;Wood finishes and paper coatings;Industrial Maintenance;Marine and maintenance coatings. Vinyl chloride and vinyl acetate copolymer resin: CYNS---DOW VYNS-3,Vinnol H11/59 CYHH---DOW VYHH,Vinnol H15/50 CYHD---DOW VYHD, Vinnol H15/42 C40/50---Vinnol H40/50 Our factory is a 22years professional VC-VA terpolymer resin/ vinyl resin manufacturer in China! Our price is competitive one in China! It covers about 50,000 cubic meter, hydroxyl-modified terpolymer vinyl resin VAGH and VAGD counter types output 10,000 MT per year; carboxyl-modified terpolymer resin VMCH, VMCC counter types and VC-VA copolymer vinyl resins counter types output 50,000 MT per year. We have REACH registration and ISO 9001.

Minimum Order: 1 bags

Chlorinated Polypropylene (CPP) Brief Introduction Chlorinated Polypropylene (CPP) is a thermoplastic resin manufactured from polypropylene (PP) through chemical modification. Properties CPP is a nontoxic light yellow granular solid. Depending on the difference of chlorine content, its melting point is generally in the range of 80~160℃ and its decomposition temperature 120~200 ℃. It is easily soluble in some organic solvents like halogenated hydrocarbons, toluene, acetic ether, butanone, etc. and it has high rigidity and good properties of wear-resistance, acid-proof, salt water- tolerance and aging-preventing. Specification Ink Ink-Ⅰ(benzene), Ink-Ⅱ(benezene), Ink-Ⅲ (ester) Chlorine % 29～32, 32～35, >38 Viscosity(25℃mPa.s,) 200~500 Transmittance test ≤0.06 PH value 5.5～7.0 Packing packed in a fiberboard box lined with an internal polyethylene bag. Net weight of each piece is 20 kg.

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Chemical Name： Polysorbate 80 / Polyoxyethylene (20) Sorbitan Monooleate Chemical Formula： C₆₄H₁₂₄O₂₆ CAS Number：9005-65-6 Molecular Weight: 1,310 g/mol Physical & Chemical Properties Property Description Appearance (25℃) Pale yellow to light amber viscous liquid Odor Slight characteristic odor, non-irritating Surfactant Type O/W(Oil-in-water) type nonionic surfactant HLB Value 15.0 (Hydrophilic) pH (1% Solution) 5.0-7.0 Specific Gravity (20℃) 1.06-1.09 Moisture Content ≤3.0% Fatty Acid Source Derived from C18:1 oleic acid (vegetable oil) Technical Specifications Parameter Specification Acid Value (mgKOH/g) ≤2.0 Saponification Value (mgKOH/g) 43-55 Hydroxyl Value (mgKOH/g) 65-82 Moisture (%) ≤3.0 HLB Value 15.0

Span 85 emulsifier chemically known as Sorbitan Oleate, is a low-HLB, oil- soluble nonionic surfactant designed for stable water-in-oil (W/O) emulsions. It is widely used as a co-emulsifier and emulsion promoter in emulsion explosives, with additional applications in pesticide formulations and industrial cosmetics. Span 85 ensures high emulsion stability, uniform droplet distribution, and enhanced formulation performance, making it a trusted choice for demanding industrial processes. Physical & Chemical Properties   Property Description Appearance Amber or brown viscous liquid Solubility Insoluble in water; soluble in hot oils and organic solvents Surfactant Type W/O nonionic emulsifier Key Features Low foam, stable emulsions, improves detonation performance

Chemical Name: Sorbitan Monooleate Emulsifier System; Mixture of Emulsifier, Co-Emulsifier, and Emulsion Promoter Chemical Formula: C₂₄H₄₄O₆ CAS Number: 1338-43-8 Physical & Chemical Properties: This product is an amber or brown viscous oily liquid, insoluble in water but soluble in hot oil and organic solvents. It is a W/O type surfactant compound with excellent emulsification and low- temperature dispersion properties, which can significantly improve the matrix structure, detonation performance, and storage stability of emulsion explosives. Span 80, chemically known as Sorbitan Monooleate, is a low-HLB, non-ionic surfactant widely used as a water-in-oil (W/O) emulsifier system. It is typically formulated as a mixture of emulsifier, co-emulsifier, and emulsion promoter, designed to deliver excellent emulsification, dispersion, and long- term stability in demanding industrial formulations. With its strong lipophilic nature and reliable performance under low- temperature and complex processing conditions, Span 80 Emulsifier has become an essential emulsifier in emulsion explosives, pesticide formulations, and cosmetics & personal care products.

Micronized wax primarily functions as a lubricant and processing aid in PVC extrusion, significantly enhancing processing performance and product quality. Mechanism and advantages of micronized wax in PVC extrusion: Micronized wax functions as both an external and internal lubricant during PVC extrusion, reducing intermolecular friction and enhancing melt flow. This increases extrusion rates while minimising equipment wear. Its spherical structure facilitates the formation of a uniform lubricating film, thereby reducing surface defects in the finished product and improving surface finish.

Micronized wax enhances ink performance through the following mechanisms: Improves surface properties: Reduces the coefficient of friction on printed surfaces, enhancing scratch resistance and anti-adhesion properties. Particularly suitable for flexographic, gravure, and offset printing processes. Optimises dispersibility and compatibility: Regular spherical particles disperse readily within ink systems without heating and exhibit excellent compatibility with pigments. PTFE-modified variants further enhance abrasion resistance. ‌Adjust gloss levels: Certain products (e.g., matting micronized wax powders) achieve a matte finish while maintaining coating uniformity.

Micronized wax is a functional additive widely employed in industrial paints to enhance the surface properties of the paint film, characterised by its fine particle size and uniform distribution. Primary Functions and Advantages ‌Enhanced Surface Properties‌: Micronized wax fortifies industrial paints against scratching, adhesion, and abrasion while imparting a smooth tactile feel. For instance, in coatings for steel structures or machinery, this reduces damage from routine friction.‌ ‌Improved Application Process‌: Incorporating micronized wax into formulations optimises rheological properties, yielding more uniform coatings and minimising air bubbles or orange peel effects. Certain micronized wax also offer matting effects, making them suitable for matt or semi-gloss industrial paints.‌ ‌Broad Adaptability: Micronized wax are compatible with solvent-based, water- based, and powder coating systems, demonstrating particular efficacy in industrial paints, can coatings, and wood finishes. Their spherical particle structure facilitates easy dispersion, allowing direct incorporation without complex pre-treatment.‌

Microcrystalline wax offers core advantages as a mould lubricant: Firstly, its excellent heat resistance and lubricity enable it to form a stable film during high-temperature injection moulding or die casting, reducing friction between the mould and moulded material, preventing sticking, and enhancing demoulding efficiency. Secondly, its good adhesion and film-forming properties ensure uniform coverage of the mould surface, providing sustained lubrication even within complex geometries and reducing mould wear. Furthermore, its high gel strength and crack resistance help maintain structural integrity during repeated thermal cycles, extending mould service life. In practical applications, microcrystalline wax is commonly employed as a pure product or in compound form: For instance, in rubber or plastic moulds, it may serve directly as a release agent or be blended with paraffin wax to enhance the latter's flexibility; in metal die casting, its lubricating properties reduce surface defects and improve product finish.

The primary functions of microcrystalline wax in sealants: Anti-adhesion and stain resistance: Surface protection: Forms an extremely thin, transparent wax film on the surface of cured sealants (such as silicone or polyurethane sealants). Contamination Prevention: This wax film effectively prevents contaminants such as construction site dust, cement slurry, and paint splatter from adhering to the uncured sealant surface, maintaining the joint's aesthetic appearance and cleanliness. Ease of Cleaning: Even if contaminants do adhere, they are significantly easier to wipe away. Controlling the Curing Process: For certain moisture-curing sealants (such as single-component silicone sealants and polyurethane sealants), the microcrystalline wax film on the surface can moderately slow the rate at which the top layer comes into contact with atmospheric moisture. Prevents ‘skin formation’: Avoids premature surface hardening that leaves the interior liquid, ensuring uniform and complete curing from the inside out. This delivers superior overall performance.

The moisture and oil repellency of microcrystalline wax primarily stems from its chemical inertness and physical barrier properties. It forms a continuous, dense coating that effectively blocks the penetration of moisture and oils. Its low permeability and high adhesion ensure the coating remains intact and resistant to flaking or peeling, thereby providing enduring protection across diverse substrates. In the packaging sector, microcrystalline wax is extensively employed for wax coating paper and cardboard. For instance, coating packaging paper with microcrystalline wax significantly enhances moisture resistance and oil repellency. This makes it suitable for applications such as frozen food cardstock and corrugated boxboard, preventing contents from becoming damp or oil-permeated. In food packaging, it is also employed in milk cartons, meat coatings, and bread wrapping paper, serving to isolate against moisture and oil penetration.

Microcrystalline wax, as a key component in coating formulations, primarily serves the following functions: Superior water resistance and moisture barrier: Possessing a fine crystalline structure and high melting point, microcrystalline wax forms a dense, flexible hydrophobic film that effectively blocks moisture and humidity, protecting the contents. This is crucial for outer packaging of foodstuffs, pharmaceuticals, and frozen products. Superior anti-adhesion and separation properties: Used in release liners or packaging papers for sticky products (e.g., adhesive tapes, adhesives, confectionery) to prevent adhesion between the product and the paper. Enhanced gloss and smoothness: Incorporation into the coating layer significantly improves the surface gloss and printability of the paper, resulting in a more refined appearance. Improved abrasion and scratch resistance: Wax coatings shield printed graphics, reducing wear during transport and handling. Enhanced flexibility: Prevents tearing during folding or forming processes for paper and cardboard.

The rust-preventive mechanism and advantages of microcrystalline wax lie in its high molecular weight structure and adhesive properties.‌ Its chemical composition, featuring long-chain naphthenic hydrocarbons, enables thorough wetting of metal surfaces upon melting. Upon cooling and solidification, it forms a continuous, resilient film that effectively blocks environmental moisture and electrolytes; Furthermore, microcrystalline wax exhibits superior gel strength and adhesion compared to ordinary paraffin wax, enhancing the coating's resistance to wear and peeling. This makes it particularly suitable for protecting metal components in dynamic or vibrating environments. ‌Specific applications include rust prevention for metal products, thickening industrial greases, and rubber protection.‌ For example: Direct application as a short-term rust-preventive coating or impregnation treatment for metal products; As a thickening agent in greases to enhance sealing properties and weather resistance; Preventing surface chalking and cracking in rubber goods, thereby indirectly aiding rust prevention.‌

Industrial furfuryl alcohol is mainly used to manufacture furfuryl alcohol resin, which is used as binder of sand core of sand core of thermal core shooting box in precise foundry industry. Also furfuryl alcohol is used to manufacture tetrahydrofurfuryl alcohol, anti-corrosion coating, etc. and used as solvents, thinner or other organic raw material. Physical & Chemical Features

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