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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.

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.

Micronized wax finds extensive application across industrial sectors, primarily serving as a functional additive to enhance material wear resistance, lubricity, scratch resistance, and machining efficiency. The following outlines its principal industrial uses: ‌Coatings and Inks Industry‌: Adding micronized wax (such as polyethylene or polytetrafluoroethylene waxes) to coatings and inks significantly improves coating abrasion resistance, scratch resistance, and slip properties, while mitigating paper friction damage during printing.

Microcrystalline wax is a high-melting-point, fine-crystalline wax refined from petroleum fractions. Compared to common paraffin wax, its key properties make it exceptionally well-suited for electronic sealing: Fine crystalline structure: Its minute crystals form a dense, resilient wax film with outstanding moisture and water resistance.

Oxidised polyethylene wax is a versatile polymeric material with extensive applications across plastics, coatings, inks and other sectors. Its unique lubricating properties enable it to play a significant role in these fields. Specifically, the lubricating effect of oxidised polyethylene wax manifests primarily in reducing the coefficient of friction between materials, enhancing processing fluidity, and improving product surface gloss.

Within masterbatches (pigments + carrier resin + additives), EVA wax primarily functions as a highly effective dispersant and processing aid, with its core roles being as follows: Exceptional pigment dispersion: Wetting and encapsulation: EVA wax possesses polar vinyl acetate groups and non-polar vinyl groups.

The primary functions of micro-wax in powder coatings: 1. Scratch and abrasion resistance Mechanism: During baking and curing, wax particles migrate to the coating surface, forming a thin, dense protective layer. This wax film possesses a low coefficient of friction and excellent lubricity, effectively reducing surface scratches and wear.

Oxidised polyethylene wax may be employed in rust prevention applications. The polar functional groups on its molecular chain, such as carbonyl and hydroxyl groups, enhance adhesion to metal surfaces and protective performance in rust prevention applications. When incorporated into coatings or rust inhibitors, it forms a dense wax film upon cooling.

High-melting-point Fischer-Tropsch waxes significantly enhance the heat resistance of adhesives—particularly EVA-based hotmelts—through their elevated melting points, enabling operational temperatures exceeding 120°C. Key applications and principles are outlined below: Core Functionality Enhancements Heat Resistance Improvement: High-melting-point grades (≥100°C) elevate the thermal endurance of EVA-based hotmelts, catering to bonding requirements in high-temperature environments.

Micronized wax particles form a microscopic ‘protective layer’ by floating on or protruding from the coating surface, thereby performing the following key functions: 1. Scratch resistance and abrasion resistance Mechanism: Wax particles are uniformly distributed within the coating, with some remaining exposed on the surface after curing.

Micronized wax primarily functions as a processing aid and modifier in engineering plastics, with its core properties as follows: 1. Lubrication represents micro-wax's principal function, categorised into internal and external lubrication. Internal lubrication: Wax molecules disperse within the plastic melt, reducing friction between polymer chains and thereby lowering melt viscosity.

Oxidized polyethylene wax serves as a key component in finishing agents, performing the following functions: Providing excellent gloss Mechanism: During leather smoothing or embossing, wax particles within the wax emulsion melt under heat, forming an extremely thin, continuous transparent wax film on the leather surface.

Oxidized polyethylene wax serves as a key component in finishing agents, performing the following functions: Providing excellent gloss Mechanism: During leather smoothing or embossing, wax particles within the wax emulsion melt under heat, forming an extremely thin, continuous transparent wax film on the leather surface.

Fischer-Tropsch wax is an excellent raw material for candle production, characterised by high purity, low viscosity, and excellent combustion stability, making it particularly suitable for premium candle products. Advantages of Fischer-Tropsch wax in candles ‌Combustion performance‌: High carbon content ensures more complete combustion, reducing soot and residue while extending candle burn time.

Fischer-Tropsch wax is primarily employed as a lubricant in injection moulding processes, significantly enhancing processing efficiency and product surface quality. Its unique chemical properties enable outstanding performance within the plastics processing sector. Core Functions of Fischer-Tropsch Wax in Injection Moulding ‌Exceptional Lubricating Properties‌: Fischer-Tropsch wax effectively reduces melt viscosity and minimises friction between the melt and metal surfaces of processing equipment, thereby increasing injection moulding production speeds.

Micronized polyethylene wax is primarily employed in powder coatings to enhance scratch resistance, achieve a matt finish, impart a smooth tactile feel, and improve coating performance. Specific applications and characteristics are outlined below: Core Functions ‌Scratch Resistance and Abrasion Resistance‌: Upon dispersion, the wax forms a protective layer that reduces the coefficient of friction, minimising scratches and polishing tendencies.

Oxidized polyethylene wax serves primarily as an excellent lubricant in PVC cable manufacturing, significantly enhancing processing properties while improving the smoothness and gloss of finished products. The carbonyl and hydroxyl groups on its molecular chain enhance compatibility with polar resins, effectively preventing material adhesion during extrusion and improving demoulding performance.