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Polyethylene wax serves as a commonly employed external lubricant in PVC product processing, primarily functioning to enhance processing fluidity, prevent melt adhesion to equipment, and improve the surface finish of the finished product. Lubrication: During PVC processing operations (such as extrusion, calendering, and injection moulding), polyethylene wax forms a lubricating film at the interface between the melt and metal equipment, reducing friction and preventing adhesion.

Microcrystalline wax is suitable for use as an insulating material, primarily due to the following characteristics: Superior electrical insulation: Possesses an extremely high resistivity, effectively preventing current flow, coupled with high dielectric strength. Outstanding moisture resistance and sealing properties: Features a dense structure and strong hydrophobicity, effectively isolating moisture and corrosive gases to prevent performance degradation caused by dampness.

Micronized wax serves as a crucial processing aid and performance modifier in PVC processing, primarily functioning as an external lubricant and surface modifier. Exceptional external lubrication properties: Reduces friction: Forms a lubricating film between the PVC melt and the metal surfaces of processing equipment, effectively lowering frictional resistance.

During pigment processing, micro-wax effectively enhances pigment flowability and dispersion stability, preventing sedimentation, caking or agglomeration of pigment particles during storage or processing. This ensures uniform colour and stable performance in end products such as coatings, inks and plastics.

The mechanism and advantages of microcrystalline wax in metal lubrication lie in: Its fine crystalline structure enhances the gel strength, adhesion, and protective properties of grease, thereby forming a uniform, resilient oil film on metal surfaces that effectively isolates friction pairs and reduces direct contact; Simultaneously, its excellent adhesion and toughness maintain stability under dynamic loads, suppressing oil film rupture.

The application of microcrystalline wax in packaging paper manifests primarily in the following aspects: Firstly, it imparts gloss and water-repellent properties to the paper, enhancing both the product's visual appeal and protective capabilities. Secondly, as a coating, microcrystalline wax strengthens the packaging paper's resistance to moisture, grease, and adhesion, making it suitable for scenarios requiring isolation from dampness and oils.

The core advantages of micronized wax in polishing lie in: 1. Smoothness and gloss: Micron-sized particles effectively fill minute scratches and irregularities on paintwork or material surfaces. When the polisher evenly distributes and presses these particles into micro-pores, the surface becomes exceptionally flat.

Oxidized polyethylene wax serves as a key multifunctional additive in PVC film processing, primarily employed to optimise processing performance and enhance product quality. Principal Functions and Effects Lubrication and Processing Performance Enhancement: OPE wax balances internal and external lubrication, reducing friction between PVC melt and equipment, minimising plasticisation delays, and increasing extrusion speed and production efficiency.

Oxidized polyethylene wax is a product obtained by subjecting polyethylene wax to an oxidation process. This oxidation introduces polar functional groups such as carboxyl and hydroxyl groups, conferring the following key properties: high hardness and high melting point; excellent wear resistance; and good dispersibility.

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.

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.

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.

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.

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.

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.

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.

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.

Microcrystalline wax is employed in packaging paper primarily for the following purposes: Exceptional moisture and water barrier properties: It effectively prevents the penetration of water vapour and liquid water, safeguarding contents from dampness. This constitutes its core function. Enhanced gloss and aesthetic appeal: It imparts a lustrous finish to the packaging paper surface, elevating the perceived quality of the product's appearance.

Microcrystalline wax serves as a highly significant and versatile modifying additive in candle manufacturing. Enhances structural strength and heat resistance: Possessing a resilient texture and high viscosity, its incorporation markedly improves a candle's resistance to bending and deformation, particularly in elevated temperature environments.

Microcrystalline wax serves primarily as a functional additive in the textile and leather sectors, enhancing materials' physical properties and durability. Within the textile industry, microcrystalline wax is frequently employed in yarn sizing to improve fabric softness and water resistance while bolstering lightfastness.

In plastics processing, Fischer-Tropsch wax primarily serves as a lubricant, dispersant, and hardening agent. By reducing melt friction resistance and enhancing melt flowability, Fischer-Tropsch wax facilitates smoother processing. Simultaneously, it improves particle dispersion, thereby enhancing product uniformity and consistency.

In rigid PVC processing, Fischer-Tropsch wax serves as a thickener and heat stabiliser, enhancing material workability and finished product stability. Within cosmetic bases, it imparts lubricity and softness, frequently employed in conditioners, lipsticks and similar products as a thickener and emollient to improve texture and moisturising effects.

Micronized wax exhibits wear resistance, rendering it suitable as an additive in diverse industrial applications. Its abrasion-resistant properties primarily stem from the protective layer it forms on coated surfaces or substrates, effectively countering friction and scratches. ‌Wear Resistance Mechanism‌: Micronized wax enhances wear resistance by increasing coating hardness and surface smoothness.

Oxidized polyethylene wax is primarily added as a functional additive, delivering multifaceted performance enhancements: 1. Scratch and abrasion resistance Mechanism: Wax particles disperse uniformly within the coating. Upon curing, some rise to the surface, forming an ultra-thin, smooth protective layer that reduces surface friction coefficients.

Function and mechanism in ink: Anti-scratch and anti-abrasion: Wax particles are uniformly distributed within the dried ink layer, with some protruding above the ink film surface to form a fine, uneven protective layer. When external forces (such as friction or scratching) act upon the ink layer, these protruding hard wax particles first bear and disperse the pressure, thereby protecting the relatively softer resin binder and significantly enhancing the ink layer's resistance to abrasion.

Micronized waxes serve primarily as fibre treatment auxiliaries in the textile industry, enhancing fabric handfeel, abrasion resistance, and wrinkle resistance. Their mechanism involves forming a lubricating film on fibre surfaces to reduce friction, thereby improving fabric softness and durability. Additionally, micronized waxes may be employed in textile coating or printing processes to enhance surface lustre and scratch resistance.

The lubricating effect of micronized wax is primarily ‘internal lubrication’. During the processing of polymeric materials such as plastics and rubber (e.g., extrusion, calendering, injection moulding), the wax powder disperses uniformly within the melt, migrating between polymer molecular chains to reduce intermolecular friction, thereby lowering melt viscosity.

Applications of micronized wax in packaging materials primarily include: ‌Surface treatment and abrasion resistance: When incorporated into coatings or inks, it enhances the scratch and wear resistance of packaging materials, suitable for scenarios requiring friction resistance such as food packaging and printed cartons.

Micronized wax is a specially processed wax powder with an extremely fine particle size. Due to its unique physical form and chemical properties, it has extensive and significant applications across numerous industrial sectors and everyday products. Paint and Ink Industry Slipperiness Enhancement and Scratch Resistance: When incorporated into paints and inks, it forms a uniform, fine wax film on the cured coating surface.

Micronized wax is commonly employed as a release agent in plastics processing, primarily serving to reduce adhesion between plastic products and moulds, thereby facilitating demoulding and enhancing production efficiency. This application typically involves incorporating micronized wax into plastic raw materials as a lubricant or anti-adhesive agent.