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In papermaking, microcrystalline wax is primarily used as a water- and moisture-repellent agent, a sizing aid, and a paraffin modifier. It is added through impregnation, coating, or pulping to enhance the paper’s water resistance, flexibility, and printability.‌‌ ‌Water and Moisture Repellency‌: Leveraging its high melting point and hydrophobic properties, it forms a dense protective film on the fiber surface, significantly reducing moisture absorption and water permeability. ‌Sizing Substitute‌: Emulsified microcrystalline wax can partially replace traditional resin sizing agents, improving the uniformity of sizing agent distribution and enhancing printing efficiency. ‌Heat Sealing and Anti-Sticking‌: When used in packaging paper coatings, it provides excellent heat sealing performance and anti-sticking properties.‌‌

The addition of microcrystalline wax can significantly improve the flowability of polyolefin plastics. During processing, good flowability helps the plastic fill the mold more effectively, thereby reducing defects in the finished products—such as bubbles and sink marks—and improving product quality. In addition, microcrystalline wax effectively improves the dispersion of fillers and additives. By enhancing compatibility among the various components, it makes the plastic material more uniform and consistent. This not only helps improve the physical properties of the finished products—such as strength and toughness—but also enhances their appearance, resulting in a smoother and finer surface finish.

Microcrystalline wax is primarily used in adhesives as a viscosity modifier, tackifier, and filler. It can significantly alter the physical properties of adhesives to meet various application requirements. Reducing viscosity and improving flow: As the component with the lowest viscosity in hot-melt adhesives, increasing the amount of microcrystalline wax can significantly reduce the melt viscosity of the adhesive, improve its flow, and make the application process smoother and the coating more uniform. Adjusting setting speed: By adjusting the amount of microcrystalline wax, the setting speed of the hot-melt adhesive can be controlled, enabling rapid bonding and improving production efficiency. Enhancing cohesive toughness and elasticity: The fine crystalline structure of microcrystalline wax imparts better elasticity, flexibility, and plasticity to the adhesive, making it less prone to cracking.

Key Industrial Applications ‌Petroleum and Lubricants Industry‌: Used as a‌ grease thickener‌ to manufacture instrument greases and sealants; used as a‌ paraffin modifier‌ to enhance the flexibility, flexural resistance, and solvent retention of paraffin, for use in waterproof paper and packaging materials. ‌Rubber and Plastics Processing‌: Added to rubber as an‌anti-cracking agent‌ to prevent surface chalking and improve demolding properties; used in plastics to optimize flow and enhance the wear resistance and anti-adhesion properties of finished products. ‌Packaging and Paper Industry‌: Used in‌packaging paper impregnation, heat-seal coatings, and barrier coatings‌ to impart water-repellent, moisture-resistant, and high-gloss properties; serves as a key component in carbon paper and wax paper.

Industrial-grade microcrystalline wax is refined from petroleum distillation residues. Its key characteristics include a high melting point, strong ductility, excellent oil absorption, and a dense structure. Strong miscibility and modification capabilities: It is miscible with various mineral and vegetable waxes, can raise the melting point of low-melting-point waxes, improve the performance of coarse waxes, and optimize formulation systems. ‌Excellent film-forming and protective properties: The resulting coating has a dense, hard, and smooth structure, offering excellent water-repellent, oil- repellent, rust-preventive, and wear-resistant characteristics. ‌High chemical stability: It is insoluble in water and cold ethanol but soluble in organic solvents such as benzene and chloroform.

In hot-melt adhesives, microcrystalline wax primarily serves as a viscosity modifier and performance enhancer; it improves the adhesive’s flexibility, heat resistance, and bonding strength to certain hard-to-bond materials. Viscosity and Flow Control: This is the most fundamental function of microcrystalline wax. As the component with the lowest viscosity in the formulation, it effectively reduces the viscosity of the hot-melt adhesive in its molten state and improves its flowability, allowing the adhesive to better wet and penetrate the surface of the substrates, thereby enhancing the bonding performance. Enhancing Flexibility and Impact Resistance: Compared to paraffin wax, microcrystalline wax has a finer crystalline structure due to its higher content of branched-chain hydrocarbons and naphthenes. It imparts better flexibility, flexural strength, and elongation to hot-melt adhesives, which is crucial for packaging or bookbinding applications that must withstand a certain degree of deformation.

Microcrystalline wax has a wide range of applications, primarily in industrial sectors such as rubber, packaging, coatings, and papermaking, where it serves to prevent moisture absorption, add luster, provide lubrication, and facilitate demolding.‌‌‌ ‌Rubber Processing‌: Used as a lubricant and release agent in tires, cables, and PVC products, it prevents surface cracking and chalking. ‌Plastics Processing‌: It improves plastic flow, enhances the wear resistance and gloss of finished products, and reduces sticking issues.‌‌‌ ‌Paper Coating‌: It improves the water resistance and wear resistance of paper and is used in corrugated cardboard and packaging paper. ‌Coatings Industry‌: As a thickener, it optimizes viscosity and provides coating hardness and gloss. ‌Printing Inks‌: It adjusts viscosity and adhesion, improving print clarity.‌‌‌

Due to its high toughness, fine crystalline structure, and excellent moisture-proof and insulating properties, Microcrystalline Wax 80 is primarily used in the following industrial fields: ‌Rubber Protection and Modification‌: Added to rubber products such as tires and seals as an anti-ozone aging agent, it migrates to the surface to form a protective film, significantly delaying cracking and chalking. ‌Plastics and Coatings Additives‌: In plastics processing, it improves flowability, wear resistance, and demolding performance; in coatings and inks, it acts as a thickener and gloss enhancer, improving adhesion and surface hardness. ‌Electrical and Electronic Insulation‌: Used in the impregnation of cable insulation paper, capacitor encapsulation, and battery sealing, it protects components from corrosion by leveraging its high resistivity and moisture resistance.

Thanks to its high melting point, excellent flexibility, strong adhesion, and moisture-resistant insulating properties, microcrystalline wax is primarily used in the industrial sector as a modifier, protective agent, and molding aid. Its core applications are as follows: Rubber and Plastics Industry Ozone resistance: When added to tires and rubber products, it migrates to form a protective film that prevents surface cracking and aging, significantly extending service life. ‌Processing Modification‌: Improves the flow properties of rubber and plastics, enhancing the surface smoothness, wear resistance, and anti-adhesion properties of finished products.‌‌

Microcrystalline wax is a high-melting-point, fine-crystalline hydrocarbon mixture produced from petroleum distillation residues through deep refining and deoiling. Its key characteristics lie in its flexibility, adhesion, and thermal stability, which are significantly superior to those of ordinary paraffin.‌‌ Oil Content Control: High-quality industrial-grade products typically have an oil content below 2%. Lower oil content results in higher hardness and minimal shrinkage, while slightly higher oil content provides better flexibility and adhesion. Color and Luster: It typically appears as milky white to pale yellow granules or lumps with a light color. It develops a luster when rubbed, which is advantageous for the production of light-colored products. ‌Solubility and Compatibility‌: Insoluble in water and cold ethanol, but soluble in organic solvents such as benzene and chloroform; miscible with various mineral and vegetable waxes, and capable of raising the melting point of wax blends.‌‌

Standards We Supply: ASTM / ASME: A106, A53, A333, A179, A192, A210 API: API 5L PSL1 / PSL2 EN: EN 10210, EN 10216-1/2/3 DIN / JIS / GB: DIN 17175, JIS G3454/G3455, GB 8162 / 8163 / 3087 Material Grades: Carbon Steel: Gr.B, Gr.C, 20#, 45# Alloy Steel: 15CrMo, 12Cr1MoV, 4130, 4140, T11, T22 Size: 1/2″ – 26″, 21.3MM-660MM, DN 15- DN 650 Thickness: 1mm – 20mm Length: 11.8m, 12m, 5.8m, 6m, others Sizes: Maximum diameter: 36″ (914.4mm) minimum diameter: 1/2″ (21.3mm) Maximum thickness: 60mm mininmum thickness: 2.11mm SCH: SCH10,SCH20,STD,SCH40,SCH60,XS,SCH80,SCH100,SCH120 , ,SCH160

Minimum Order: 5 dozens

Standard:ASTM A53,ASME SA53 Grade: Grades A and B Size: 1/2″ to 24″, or custom Schedule: SCH10, SCH 40, SCH 80, XS,SCH 160 To SCH XXS Type: Seamless , Welded (ERW), Galvanized steel pipe Ends: Plain, Beveled, Threaded Coating: 3PE, FBE, Varnished, Black, Zinc Coated ASTM A53 is the standard specification for the carbon steel pipe in seamless, welded, and zinc-coated galvanized pipes. Covers the dimensions ranges from OD 10.3 mm (1/8 inch) to 660 mm (26 inch). Applications Transmission: Oil and gas pipeline systems, water treatment, mineral slurry Construction and Structure: Buildings, underground water drilling, boiler water transmission Machine Parts: Machining to spare parts Power station: Wind Turbines, Anti-Static tube Find here Differences between ASTM A53 and ASTM A106. How many grades in ASTM A53 standard? a. Seamless Type S, has grade A and B. b. Welded Type E (ERW), Grade A and B. c. Furnace Welded Type F, Grade A only. Galvanized (Zinc Coated) Standard Requirements ASTM A53 standard specification including hot dipped galvanized (zinc coated) requirements for ASTM A53 Grade B steel pipe. Moreover, there are pipe internal and external galvanization. By the hot dip procedures, zinc thickness of any grade shall be complied to specification B 6.

Minimum Order: 5 dozens

In the world of construction and infrastructure, ASTM A333 stands out as a leading standard for seamless and welded carbon and alloy steel pipes. Specifically tailored for applications in low temperatures, these A333 steel pipes are not only resilient but are also crafted with meticulous attention to their impact properties, especially when used in freezing conditions. The ASTM A333 steel pipe provides a reliable and flexible pipe selection for low-temperature environments, and also provides a strong basis and support for engineering design and material selection. Choosing ASTM A333 is choosing precision. The ASTM A333 standards includes manufacturing types in welding (ERW) and seamless. Material covers carbon and alloy steels. Whether it’s seamless or welded, each pipe undergoes rigorous production procedures, ensuring uniformity and consistency. The range covers diverse steel grades and offers options in surface coatings, end types, joint methods, and machining services. By opting for ASTM A333 steel pipe, you avail the flexibility and adaptability tailored to your unique project needs. Key characteristics Application: Primarily for low-temperature service, where pipes must maintain strength and toughness in cold environments, such as the petrochemical and gas industries. Grades: Covers several grades of ferritic steel, with common grades including Grade 6, Grade 7 and Grade 3. Manufacturing: Can be manufactured through seamless or welded processes. Chemical composition: Varies by grade, with a higher carbon content in Grade 6 compared to Grade 3. Mechanical properties: Requires specific tensile strength, yield strength, elongation, and low-temperature impact properties to ensure performance. Testing: Must pass tests including chemical composition inspection, mechanical property tests, and non-destructive tests to ensure quality and safety. APPLICATIONS OF ASTM A333 steel pipe: Cryogenic field development: The ASTM A333 pipeline serves as the main pipeline for transporting crude oil and natural gas, ensuring long-term stable operation of the pipeline system. Liquefied natural gas (LNG) industry: such as LNG transmission pipelines and LNG storage facilities. LNG needs to be transported at -162 degrees Celsius. Special chemical media transport: ASTM A333 pipe through reasonable alloy design and chemical composition control, effectively avoid the corrosion of these media. ASTM A333 Gr. 6 chemical composition: Grades C.max Si min Mn P S Gr. 6 0.30 0.1 0.29-1.06 ≤0.025 ≤0.025 ASTM A333 Gr. 6 mechanical property: Grades Tensile strength Rm Yield strength YS Enlongation A(％) Gr. 6 415 240 ≥16.5

Microcrystalline wax is commonly used as a raw material for yarn waxing, which is one of its key applications in the textile industry. Reducing friction as a lubricant: This is its most fundamental function. Microcrystalline wax forms a lubricating film on the yarn surface, effectively reducing friction between the yarn and textile machinery, thereby lowering yarn breakage rates and improving production efficiency. At the same time, this protective film also enhances the yarn’s abrasion resistance, enabling it to withstand the rigors of high-speed spinning and weaving processes. Good flexibility and high elongation: When subjected to stress, microcrystalline wax tends to flow plastically rather than fracture brittle, which prevents it from peeling off the yarn surface after application and ensures long-lasting lubrication. High molecular weight and strong adhesion: It has a higher molecular weight than paraffin wax, providing better adhesion to the yarn and forming a more durable coating.