Non-stick coating spray, surface coating, non-stick adhesive coating, wear-resistant and non-stick spray.

Introduction to Thermal Spraying Non-Stick Coatings—Part I: Application Fields of Non-Stick Coatings 1. Disposable Hygiene Products Equipment: - Rubber and plastic processing machinery and molds; - Woodworking, papermaking, and printing machinery; - Shoes, apparel, and packaging industries. The non-stick coatings are applied to drive rollers in equipment such as coating machines, printing presses, dyeing machines, adhesive tape production machinery, and diaper production machinery. Typically, certain drive rollers in these devices come into contact with coated surfaces, printed surfaces, or dyed surfaces. If the printed or dyed surfaces are not fully dried, they can easily contaminate the roller surfaces, affecting the surface patterns of the final products. Traditionally used Teflon coatings have a high peel strength against hot melt adhesives, resulting in insufficient non-stick performance and inadequate wear resistance. This leads to rapid loss of non-stick properties, reduced production efficiency, shorter maintenance cycles, and increased costs. Our factory has independently developed and patented a “Thermal Spraying Anti-Adhesive and Wear-Resistant Coating” technology that employs plasma thermal spraying. This coating uses a nickel-based alloy matrix dispersed with high-molecular anti-adhesive materials and leverages the biomimetic lotus leaf effect. As a result, the coating exhibits extremely low adhesive peel strength and outstanding wear resistance. Its overall performance is dozens of times superior to that of Teflon coatings, reaching a domestically advanced level in this field. Main Applications: 1. Surface treatment of hot-forming dies; 2. Surface treatment of conveyor rollers in diaper manufacturing machines; 3. Surface treatment of various coating rollers in adhesive machinery; 4. Non-stick surfaces for food processing machinery; 5. Surface treatment of various roller-type components in coating machines. II. Performance Characteristics of the Non-Stick Coating The newly invented anti-adhesive and wear-resistant coating developed by our factory addresses the shortcomings of traditional non-stick coatings—such as Teflon—used in various industrial fields. These traditional coatings suffer from excessive peel strength against hot melt adhesives, leading to poor non-stick performance and insufficient wear resistance, which in turn cause the non-stick properties to fail prematurely. Our new coating significantly improves non-stick performance, extends service life, reduces maintenance intensity and frequency, enhances equipment utilization efficiency, and boosts product quality while lowering production costs. Key features of the coating include: 1. The coating does not adhere to various tapes, glues, adhesives, or hot melt adhesives. 2. Hardness: HV800 3. Roughness: Ra3.2~6.4 4. Temperature resistance range: 0–450℃ 5. Thickness: 0.15–0.3 mm III. Effectiveness of the Non-Stick Coating This coating is made from a high-strength alloy with a surface hardness reaching HRC60, and its bond strength with the substrate reaches 25 MPa. It boasts wear resistance and service life that are unmatched by Teflon coatings. The non-stick performance is exceptional, with an adhesive peel strength against hot melt adhesives of less than 5 g/25 mm. When commonly used hot melt adhesives in the paper products industry are applied to the surface of this coating and then cooled, the adhesive layer can be easily peeled off by hand without leaving any residue—a remarkable non-stick effect. Compared to Teflon coatings, the adhesive peel strength on this coating is significantly reduced. When hard objects such as iron sheets are used to scratch the coating surface, the Teflon coating is immediately scratched, exposing the underlying substrate and losing its non-stick properties. In contrast, after multiple scratches, our coating remains intact and shows no significant reduction in non-stick performance. Field trials conducted on disposable hygiene products equipment have demonstrated a marked improvement in the efficiency of handling adhesive contamination during the production process, greatly enhancing both product quality and production efficiency. This coating solves key technical challenges faced by this equipment and the entire industry, making it highly practical and worthy of widespread adoption.

Lithium-ion hybrid machine coated with tungsten carbide

Lithium battery horizontal ribbon and plow-blade mixer with tungsten carbide coating: Tungsten carbide powder (10% cobalt, 4% chromium, 86% tungsten carbide / 12% cobalt, 88% tungsten carbide); Coating thickness: 0.2–0.3 mm; Coating process: Supersonic flame sealing—using imported sealing agent for excellent anti-corrosion performance.

Tungsten carbide wear-resistant coating applied by dispersion disk spraying

1. Specialized isolation layers for lithium equipment and tungsten carbide wear-resistant coatings applied to dispersing disc surfaces—tungsten carbide wear-resistant coatings are now widely used in the lithium-battery slurry industry and are suitable for various components in lithium battery equipment, including dispersing discs, helical shafts, spiral mixers, wear-resistant parts of pulverizers, tank bodies, cylindrical vessels, conical hoppers, powder-handling machines, feeders, electrode manufacturing equipment, and other wear-resistant coatings. 2. The hardness of the tungsten carbide coating reaches above HRC75, making it one of the hardest and most wear-resistant coatings after diamond. It effectively prevents metal ions from entering the powder, thereby avoiding metal contamination of the powder caused by material wear. 3. Guangzhou Sanxin utilizes American Plazex supersonic spraying equipment and imports high-quality tungsten carbide materials. Tungsten carbide coatings are particularly well-suited for applications involving particle abrasion. 4. During coating application, the workpiece temperature does not exceed 150 degrees Celsius, ensuring no deformation occurs in the workpiece. 5. The coating’s surface roughness is around R3.2, with a controllable coating thickness ranging from 0.10 to 0.35 mm. After pore-sealing treatment, the coating does not react with NMP. 6. Depending on the specific operating environment, you can select wear- and corrosion-resistant coatings tailored to your needs.

Tungsten Carbide Spraying and Coating Process

What is the hardness of tungsten carbide thermal spray coatings? Theoretically, tungsten carbide thermal spray coatings can achieve a hardness of 65 to 70 HRC—this represents the theoretical hardness attainable by domestic thermal spraying technologies. When applying tungsten carbide coatings to sealing surfaces, the process also increases the difficulty of subsequent grinding and lapping operations; therefore, it is recommended to use diamond abrasive paste for grinding. If the sealing surface is a hard seal, repeated opening and closing may affect the integrity of the tungsten carbide coating—this should be taken into account. I. Common Coating Types, Their Properties, and Application Ranges Coating Material | CrN (Chromium Nitride) | TiN (Titanium Nitride) | TiCN (Titanium Carbonitride) | TiAlN + WC (Tungsten Carbide) | Carbon Film Hardness (HV) | 1700 | 2200 | 3000 | 3000 | 1700 Friction Coefficient | 0.5 | 0.4 | 0.4 | 0.1 | <0.1 Residual Stress (MPa) | -1.5 | -2.5 | -4.0 | -1.7 | N/A Processing Temperature (°C) | 400 | 450 | 450 | 450 | 450 Oxidation Resistance Temperature (°C) | 700 | 600 | 750 | 850 | 850 Coating Thickness (μm) | 1–6 | 1–4 | 1–4 | 1–4 | 1–4 Coating Color | Silver-white | Golden-yellow | Gray | Dark gray-black | N/A Coating Structure | Single-layer film | Single-layer film | Multi-layer film | Multi-layer film | N/A Features: - Good adhesion, oxidation resistance, and corrosion resistance. - Widest application range. - High hardness, excellent wear resistance, and good toughness. - Combines the properties of TiAlN and WC/C, ensuring superior machining quality. - Suitable for cutting copper-based metals, forming tools, molds, and parts. Offers better wear resistance than traditional chrome plating and effectively prevents sticking and adhesion during plastic injection molding, die casting, and powder sintering processes. - Applicable to turning and milling inserts, drill bits, milling cutters, taps, gear-cutting tools, punches, forming dies, stamping dies, injection and die-casting mold components, wear-resistant parts, mechanical components, and decorative items. - An excellent choice for cutting ferrous metals, plastic molding dies, and wear-resistant workpieces. - Ideal for cutting, forming, and punching tools that require high-speed cutting, high feed rates, and frequently experience impact at the cutting and forming edges. Offers greater wear resistance and higher temperature stability than TiN. However, attention must be paid to the material and surface condition of the substrate being coated. - Suitable for high-speed cutting of high-hardness materials. Tools made from high-speed steel and tungsten steel coated with this film effectively protect cutting edges from wear and ensure smooth chip evacuation, enhancing the efficiency and performance of drilling, tapping, and dry cutting of steels and aluminum alloys. Coating Material | TiC (Titanium Carbide) | Tungsten Carbide (WC) | WC/C (Carbon-Tungsten Composite) | TiAlN (Titanium Aluminum Nitride) | DLC (Diamond-Like Carbon) Hardness (HV) | >3500 + 1000 (microhardness at 50g load) | 3000–3500 | 2500 (microhardness at 50g load) | >0.1 (TiConTiC) | 0.1 | 0.4 | 0.1–0.2 Friction Coefficient | N/A | N/A | N/A | N/A | N/A Residual Stress (MPa) | -1.0 | -1.5 | N/A | N/A | N/A Processing Temperature (°C) | 250 | 450 | N/A | N/A | N/A Oxidation Resistance Temperature (°C) | 300 | 800 | 350 | N/A | N/A Coating Thickness (μm) | 1–4 | 1–5 | N/A | N/A | N/A Coating Color | Gray | Dark gray-black | Dark purple-gray | N/A | N/A Materials—Equipment—Processes—Solutions We have accumulated extensive experience in coating applications and are now successfully replicating these case studies. We will guide you through the entire coating manufacturing transition process, ensuring: - Rapid production start-up; - A reliable supply solution covering materials, equipment, and processes comprehensively; - Coating trials conducted either on-site at your facility or at our technical center; - Consistent coating quality and efficiency. Start collaborating with us today and reap success tomorrow!

Wear-resistant coating for battery rolls

1. Roller pressing is the most commonly used compaction process for lithium-battery electrode sheets. Compared to other processing methods, roller pressing significantly alters the pore structure of the electrode sheets and also affects the distribution of conductive additives, thereby impacting the electrochemical performance of the battery. 2. Based on comparative analyses with multiple electrode-sheet rolling machines and in close alignment with the needs of battery manufacturers, our company has developed a high-precision, high-strength coating for battery electrode-sheet rollers. This coating specifically enables precise control over the shape of the electrode sheets, effectively addressing the issue of uneven thickness—where the center of the sheet becomes thicker while the edges remain thinner—caused by deflection and deformation of the rollers. We have accumulated extensive experience in coating application across materials, equipment, processes, and solutions, and we are now successfully replicating these proven success stories. We will guide you through the entire coating-manufacturing transition process, ensuring: rapid production start-up; a reliable, one-stop supply solution covering materials, equipment, and processes; coating trials conducted either at your site or at our technical center; and consistently high coating quality and efficiency.

Tungsten carbide spray coating for mixing equipment dispersing discs

1. The specialized isolation layer for lithium equipment and the tungsten carbide wear-resistant coating applied to dispersing discs are widely used in the lithium battery slurry industry. They are suitable for various types of lithium-ion equipment, including dispersing discs, helical shafts and screw mixers, wear-resistant components of pulverizers, tanks, cylinders, conical hoppers, powder handling machines, feeders, electrode manufacturing equipment, and other wear-resistant coatings. 2. The tungsten carbide coating achieves a hardness of HRC75 or higher—second only to diamond among ultra-hard, wear-resistant coatings. It effectively prevents metal ions from entering the powder, thereby avoiding metal contamination that could degrade powder quality. 3. Guangzhou Sanxin utilizes American Plazex supersonic spraying equipment and imports high-quality tungsten carbide materials. This tungsten carbide coating is particularly well-suited for applications involving particle abrasion. 4. During coating application, the workpiece temperature does not exceed 150 degrees Celsius, ensuring no deformation occurs on the workpiece. 5. The coating’s surface roughness is below R3.2, and its thickness can be precisely controlled between 0.10 and 0.35 mm. After pore-sealing treatment, the coating remains chemically inert and does not react with NMP. 6. Depending on the specific operating environment, users can select wear- and corrosion-resistant coatings tailored to their needs. 1. The specialized isolation layer for lithium equipment and the tungsten carbide wear-resistant coating applied to dispersing discs are widely used in the lithium battery slurry industry. They are suitable for various types of lithium-ion equipment, including dispersing discs, helical shafts and screw mixers, wear-resistant components of pulverizers, tanks, cylinders, conical hoppers, powder handling machines, feeders, electrode manufacturing equipment, and other wear-resistant coatings. 2. The tungsten carbide coating achieves a hardness of HRC75 or higher—second only to diamond among ultra-hard, wear-resistant coatings. It effectively prevents metal ions from entering the powder, thereby avoiding metal contamination that could degrade powder quality. 3. Guangzhou Sanxin utilizes American Plazex supersonic spraying equipment and imports high-quality tungsten carbide materials. This tungsten carbide coating is particularly well-suited for applications involving particle abrasion. 4. During coating application, the workpiece temperature does not exceed 150 degrees Celsius, ensuring no deformation occurs on the workpiece. 5. The coating’s surface roughness is below R3.2, and its thickness can be precisely controlled between 0.10 and 0.35 mm. After pore-sealing treatment, the coating remains chemically inert and does not react with NMP. 6. Depending on the specific operating environment, users can select wear- and corrosion-resistant coatings tailored to their needs.

Tungsten Carbide Spray Coating for Pipelines, Coating for Feed Tubes in Lithium-Ion Battery Equipment, Wear-Resistant Spray Coating for Powder Conveying Pipes

Tungsten carbide spray coating for pipelines, coating for feed pipes in lithium-ion battery equipment, and wear-resistant coating for powder material pipes. 1. Currently widely used in the lithium-battery slurry industry, this coating is suitable for various components in lithium-ion battery equipment, including dispersion disks, screw shafts, spiral mixers, wear-resistant parts of pulverizers, tanks, and cylinders.

Tungsten carbide wear-resistant coating applied to the rotors and sealing devices of internal mixers.

Guangzhou Sanxin utilizes the advanced U.S.-imported PRAXAIR JP8000 supersonic spraying equipment to apply wear- and corrosion-resistant coatings to tungsten carbide-sprayed rotors, mixing chambers, and sealing devices of internal mixers. Guangzhou Sanxin utilizes the advanced U.S.-imported PRAXAIR JP8000 supersonic spraying equipment to apply wear- and corrosion-resistant coatings to tungsten carbide-sprayed rotors, mixing chambers, and sealing devices of internal mixers.