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Hunan Yibeinuo New Material Co., Ltd.
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Your Professional & Reliable Partner.
YIbeino New Materials focuses on the research and development of new wear-resistant ceramic materials and is committed to providing material conveying, pneumatic conveying system engineering design and equipment wear problems under various complex working conditions for cement, thermal power, steel, coal, port, chemical, new energy, mineral processing, engineering machinery, concrete pipe pile, and other industries. We have 20 years of industry experience in the field of wear-resistant materials...
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Year Established

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Million+
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Million+
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Million+
Annual Sales
China Hunan Yibeinuo New Material Co., Ltd. Strict quality assurance system
Each process is strictly carried out in accordance with quality standard procedures, and the quality control process is strictly supervised to ensure that each factory product meets the national standards for wear-resistant ceramics.
China Hunan Yibeinuo New Material Co., Ltd. Leading design and R&D capabilities
Our company has a professional R&D team composed of experts in alumina ceramics and wear-resistant ceramic installation engineers. Through nearly 20 years of accumulated equipment anti-wear experience, we provide customers with customized equipment anti-wear solutions and provide enterprises with reduced costs and increased efficiency.
China Hunan Yibeinuo New Material Co., Ltd. Strong production capacity
It has advanced alumina ceramic production lines and modern steel structure processing plants.
China Hunan Yibeinuo New Material Co., Ltd. Quick response service
Quotation provided within 12 hours Provide anti-wear solutions 24 hours a day Convenient delivery channels: car, train, plane, sea transportation, etc.

Quality Wear Resistant Ceramic Pipe & Alumina Ceramic Pipe Manufacturer

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What is a bolted welded high-temperature and wear-resistant ceramic pipeline
Product Overview Our stud welding type ceramic-lined steel pipe is a high-performance composite pipeline, which integrates the superior pressure-bearing capacity of metal pipes and the excellent wear-resistant & high-temperature resistant properties of ceramic materials. Adopting advanced stud welding connection technology, it realizes the firm combination of ceramic liner and metal matrix, effectively solving the problems of ceramic liner falling off and cracking under harsh working conditions. It is an ideal pipeline solution for conveying high-temperature, high-abrasion, and corrosive media in metallurgy, electric power, mining, and building materials industries. Core StructureMetal Matrix Material: Carbon steel, alloy steel (customizable according to customer requirements). Function: It bears the external pressure and mechanical impact of the pipeline system, provides reliable support for the ceramic liner, and has good welding and installation performance, which is compatible with various industrial pipeline connection modes. Ceramic Liner Material: High-purity alumina ceramic, silicon carbide ceramic Performance: Mohs hardness ≥ 9, temperature resistance up to 1000℃, excellent wear resistance (20-50 times that of ordinary steel pipes), and corrosion resistance, directly contacting the conveying medium to ensure the long-term stable operation of the pipeline. Stud Welding Connection Layer Process: Dense metal studs are welded to the inner wall of the metal pipe. After the ceramic liner prefabricated parts are installed, they are combined with the studs through high-temperature sintering and special adhesive bonding, forming a mechanical interlocking structure. Advantage: The connection strength is greatly improved compared with the traditional adhesive method. The reserved micro expansion gap between the ceramic liner and the metal matrix can offset the thermal expansion and contraction difference under high temperature alternating conditions, preventing ceramic cracking and falling off. Product Advantages Advantages Our Product Ordinary Metal Pipe Adhesive Ceramic Lined Pipe Wear Resistance Service Life 5-10 years 0.5-2 years 2-3 years High Temperature Resistance ≤1000℃ ≤400℃ ≤600℃ Impact & Anti-falling Capacity Excellent Medium Poor Maintenance Cost Low (no frequent replacement) High (frequent maintenance and replacement) Medium (regular inspection and repair) Applicable Medium High-temperature dust gas, coal powder, ore pulp, slag Low-abrasion normal temperature medium Low-velocity, low-impact abrasive medium Quality Assurance & After-Sales Service 1.We provide third-party testing reports of product performance, including wear resistance test, high temperature resistance test, and pressure bearing test. 2.The product warranty period is 12 months. During the warranty period, we will provide free maintenance and replacement services for quality problems caused by non-human factors. 3.We can provide customized design and production services according to the specific working conditions and technical requirements of customers, and send professional technical personnel to guide on-site installation and commissioning.
Answers to questions about alumina ceramic lining for fan impellers
Regarding ceramic installation Our company uses a dovetail groove inlay structure combined with a strong adhesive to fix the wear-resistant ceramic. Although this process is more difficult, it allows for the connection of ceramic pieces with tiny gaps along the dovetail groove direction. Since product development, there have been no instances of more than four ceramic pieces detaching from the same blade (detachment is mostly caused by the wire rope accidentally snagging the blade during impeller hoisting). Furthermore, the ceramic piece design takes into account both size and weight, so even if individual ceramic pieces are damaged, it will not affect the overall dynamic balance of the impeller. How to Solve the Problem of Heavy Wear? Wear-resistant ceramics, as a high-wear-resistant material in the industrial field, owe their wear resistance to the precise control of three core factors: raw material selection, powder preparation, and sintering process. Raw Material Selection: High-purity α-alumina and crystal growth inhibitors are used. Powder Preparation: Advanced processes are used to produce uniformly distributed, highly fluid granulated powder. Sintering Process: Strict control of sintering parameters and temperature effectively inhibits excessive crystal growth, reduces internal porosity, and forms a highly dense sintered structure. The impact of adding wear-resistant ceramics on the overall performance of the impeller The total weight of all ceramic blocks is about 60 kg. After deducting the weight of metal reduced during the impeller metal processing, the final overall weight of the impeller is only about 5-6 kg more than the original impeller. Since the addition of ceramics does not change the original structural shape of the fan, the impact on the fan flow rate is negligible. How to solve the problem of ceramic detachment at high temperatures? Fan impellers operate in environments with temperatures exceeding 200℃ for extended periods. Traditional epoxy resin adhesives are not heat-resistant and prone to aging, making them unsuitable for long-term use (even with dovetail grooves or spot welding, the adhesive still easily becomes brittle and crumbles at high temperatures). Our company employs a dual fixing solution of "adhesive bonding + dovetail grooves," using a high-temperature resistant inorganic adhesive. This adhesive exhibits excellent adhesion, processability, and thixotropy to both steel and ceramics, can cure at room temperature, and possesses high strength, high toughness, and resistance to high temperatures and aging. Within a temperature range of -50℃ to 500℃, the liner can operate stably for a long time without aging or detachment. How to solve the problem of ceramic detachment caused by wind turbine vibration and transportation? Wind turbine impellers vibrate intensely during operation, requiring adhesives to possess both high shear strength and seismic resistance. Our adhesives have a shear strength of 2.5 MPa, effectively ensuring the stability of ceramics under strong vibration environments and significantly reducing the risk of detachment.   How to address the impact of sudden heating and cooling on ceramics during start-up or shutdown? In the rapid heating and cooling environment during unit start-up and shutdown, the difference in thermal expansion coefficients between ceramics and steel, along with the brittleness of organic adhesives, can easily lead to the detachment of entire ceramic sheets. We have improved the formulation of our inorganic adhesive, ensuring its thermal expansion coefficient (9×10⁻⁶ m/m·K) falls between that of steel and ceramics. Simultaneously, we utilize the microfiber structure of the adhesive to buffer the compressive stress caused by the difference in thermal expansion, ensuring the long-term reliable operation of the ceramics under extreme temperature variations. How to solve the problem of ceramic gaps? By using mature technology to control the ceramic gap to ≤1mm, and by using a staggered bonding method perpendicular to the wind direction, we can avoid the formation of continuous gaps along the wind direction, reduce the erosion of the gaps by airflow, and achieve precise docking of the tiny gaps in the ceramic pieces.
Why are cylindrical alumina ceramics chosen for ceramic-lined rubber hoses and ceramic-lined plates?
The core reason for choosing cylindrical alumina ceramics (usually referring to alumina ceramic cylinders/rods) for ceramic-lined rubber hoses and ceramic-lined plates is that the cylindrical structure is well-suited to the working conditions of both types of products.  Furthermore, the inherent performance advantages of alumina ceramics, combined with the cylindrical shape, maximize their value in terms of wear resistance, impact resistance, and ease of installation. This can be analyzed from the following perspectives: Basic Performance Advantages of Alumina Ceramics (Core Premise)Alumina ceramics (especially high-alumina ceramics, with Al₂O₃ content ≥92%) are the preferred choice for industrial wear-resistant materials, possessing:Ultra-high wear resistance: Hardness of HRA85 or higher, 20-30 times that of ordinary steel, capable of resisting erosion and abrasion during material transport (such as ore, coal powder, and mortar);Corrosion resistance: Resistant to acids, alkalis, and chemical media corrosion, suitable for harsh environments in chemical and metallurgical industries;High-temperature resistance: Can operate continuously below 800℃, meeting the needs of high-temperature material transport;Low friction coefficient: Smooth surface reduces material blockage and lowers transport resistance;Lightweight: Density of approximately 3.65 g/cm³, significantly lower than metal wear-resistant materials (such as high-manganese steel at 7.8 g/cm³), without substantially increasing equipment load.These properties are the basis for their use in wear-resistant linings, while the cylindrical structure is an optimization specifically for the applications of ceramic-lined rubber hoses and ceramic-lined plates Key Reasons for Using Cylindrical Structures in Ceramic Rubber Hoses: The core of ceramic rubber hoses (also known as ceramic wear-resistant hoses) is a "rubber + ceramic composite," used for the flexible conveying of powder and slurry materials (such as fly ash conveying in mines and power plants). The core logic behind choosing cylindrical alumina ceramics is: Flexible Conformity: The hose needs to be adaptable to bending and vibration. Cylindrical ceramics can be arranged in an "embedded" or "adhesive" manner within the rubber matrix. The curved surface of the cylinder provides a tighter bond with the flexible rubber, making it less likely to detach due to bending or compression of the hose compared to square/plate-shaped ceramics (square ceramics are prone to stress concentration at the corners, and the edges tend to lift when the rubber is stretched). Uniform Stress Distribution: When materials flow inside the hose, they are in a turbulent state. The curved surface of the cylindrical ceramics can disperse the scouring force, preventing localized wear. The smaller gaps between the cylindrical arrangement result in more comprehensive coverage of the rubber matrix by the ceramics, reducing the risk of wear on the exposed rubber. Convenient Installation and Replacement: Cylindrical ceramics have standardized dimensions (e.g., 12-20mm in diameter, 15-30mm in length), allowing for batch bonding or vulcanization into the rubber layer, resulting in high production efficiency; if local ceramics are worn, only the damaged ceramic cylinders need to be replaced, eliminating the need to replace the entire hose, thus reducing maintenance costs. Impact Resistance: The impact toughness of the cylindrical structure is superior to that of plate-shaped ceramics (plate-shaped ceramics are prone to fracture under impact), and can withstand the impact of hard particles in the material (such as the impact of rocks in ore transportation). Key Reasons for Choosing Cylindrical Structures for Ceramic Composite Liners The core logic behind selecting cylindrical alumina ceramics for ceramic composite liners (also known as ceramic composite wear plates, used for wear protection of the inner walls of equipment such as hoppers, chutes, and mills): Anchoring Stability: Ceramic composite liners typically use a "ceramic + metal/resin composite" process. Cylindrical ceramics can achieve mechanical anchoring through casting (pre-embedding the ceramic cylinders into the metal matrix) or bonding (embedding the bottom of the ceramic cylinders into resin/concrete). The "cylinder body + bottom protrusion" structure enhances the interlocking force with the base material, providing stronger resistance to peeling and detachment compared to plate-shaped ceramics (which rely only on surface bonding and are easily detached due to material impact). Continuity of the Wear Layer: Cylindrical ceramics can be tightly arranged in a honeycomb pattern, covering the entire surface of the liner and forming a continuous wear-resistant layer; the curved design of the cylinder guides material sliding, reducing material retention on the liner surface and minimizing localized abrasion (the right angles of square ceramics tend to trap material, exacerbating wear). Adaptability to Composite Processes: The production of ceramic composite liners often uses "high-temperature cladding" or "resin casting." Cylindrical ceramics have good dimensional consistency, allowing for even distribution in the base material, avoiding unevenness on the liner surface due to ceramic size variations; furthermore, the cylindrical shape of the ceramic cylinders allows for more uniform heating during the cladding process, reducing the likelihood of cracking due to thermal stress. The selection of cylindrical alumina ceramics for ceramic-lined rubber hoses and ceramic-lined plates is essentially a dual result of "material performance + structural suitability": alumina ceramics provide core wear resistance, while the cylindrical structure perfectly matches the working conditions of both types of products (the flexibility of the hose and the anchoring requirements of the lining plate), while also considering added value such as ease of installation, maintenance, and impact resistance. This makes it the optimal structural choice for industrial wear-resistant applications.

2025

12/23

Which industries or fields are most suitable for ceramic ball valves?
Ceramic ball valves, with their core advantages of wear resistance, corrosion resistance, and erosion resistance, are ideally suited for applications involving the transport of solid particles and highly corrosive media. These applications place far greater demands on valve durability and reliability than in standard applications.   Core Advantages (Why Use Them in These Applications) Extreme Wear Resistance: Ceramics (especially zirconium oxide and silicon carbide) are second only to diamond in hardness, making them highly resistant to the intense erosion and abrasion caused by solid particles in the media. Excellent Corrosion Resistance: They are extremely resistant to most corrosive media, including strong acids, bases, and salts (except hydrofluoric acid and strong, hot, concentrated alkalis). High Strength and Stability: Ceramic ball valves maintain their shape and strength even at high temperatures and have a low coefficient of thermal expansion. Excellent Sealing: The ceramic ball and seat are precision-ground, achieving an extremely high sealing rating and virtually zero leakage. Core Application Industries and ScenariosThe following industries are the primary application areas for ceramic ball valves due to media characteristics or operating requirements. Industry/Field Applicable scenarios and advantages Thermal power plants Used for desulfurization and denitrification systems, flue gas dust removal, ash and slag removal, etc., resistant to high temperature and Cl⁻ corrosion, with a service life 2-3 times that of titanium valves. Petrochemical industry Transport strong acid (sulfuric acid, hydrochloric acid), strong alkali, salt liquid, replace titanium valve, monel valve, corrosion resistance, low cost Metallurgy/Steel Used in coal injection systems and blast furnace ash transportation, resistant to wear and high temperature, suitable for medium containing particles Mining industry Control of high-wear fluids such as slurry, tailings, ash water, etc., anti-erosion, and long service life Papermaking industry Used for conveying high-concentration alkali solution and pulp, corrosion-resistant, and fiber wear-resistant Wastewater treatment Suitable for lime slurry, sludge, and wastewater containing particles, corrosion-resistant, non-clogging, and maintenance-free Pharmaceutical and food Require high cleanliness and zero leakage, ceramic material is non-toxic, does not pollute the medium, and meets hygiene standards. Desalination/marine engineering Transporting seawater containing particles, resistant to chloride ion corrosion and wear Scenarios where this product is not suitable or requires caution:Systems subject to high shock and high-frequency vibration: Ceramics are hard but brittle and have limited resistance to mechanical shock.Conditions involving frequent and rapid opening and closing: While the ceramic sealing surface is wear-resistant, the high-frequency switching may cause microcracks.Ultra-high-pressure (>PN25) or ultra-low-temperature (

2025

10/23

What is the difference between ceramic rings, welded alumina ceramic plates, and ceramic sheets?
The pipelines within a factory are the "arteries and veins of industry," transporting powerful media like ore slurry, acid, and high-temperature gases. However, these media are all capable of withering attacks: sand and gravel impact the pipe walls like a steel brush, acids and alkalis erode like hidden corrosives, and high temperatures and high pressures create a double torment. To extend the life of the pipes, they are lined with a protective layer—alumina. Three common protective layers come in three forms: alumina ceramic rings, welded ceramic plates, and adhesive ceramic sheets. What are their unique capabilities? Why are ceramic rings becoming the preferred choice for a growing number of factories? This article examines these three materials from a pipeline perspective to help you choose the right protective layer for you. Pipe linings shoulder the important task of protecting pipelines and ensuring transportation, with the following specific requirements:Abrasion resistance: Able to withstand the impact of solid particles such as ore and coal dust, acting like a solid "shield" and effectively reducing wear on the inner wall;Corrosion resistance: Resistant to corrosive fluids such as acids, alkalis, and salts, preventing corrosion and perforation in the pipeline;Easy installation: Minimize downtime, reduce labor costs, and facilitate installation.Easy maintenance: Any local damage can be quickly repaired without requiring extensive disassembly and replacement.High-temperature resistance: Maintains stable performance in high-temperature fluids, such as flue gas temperatures exceeding 300°C, without softening or cracking. Alumina Ceramic SleeveStructure: Manufactured in a circular shape using a monolithic sintering process, the ring's inner diameter, outer diameter, and thickness are precisely tailored to the pipe's specifications, ensuring a tight fit. Core AdvantagesExtremely Wear-Resistant and Impact-Resistant: Alumina boasts a hardness of 9, second only to diamond, and boasts a service life 5-10 times that of ordinary steel pipes.Excellent Corrosion Resistance: Acids and alkalis are impervious to corrosion, effectively eliminating wear issues in chemical pipelines.Excellent Sealing: The integrated structure minimizes joints, significantly reducing the risk of fluid leakage.Easy and Low-Cost Maintenance: In the event of localized wear, only the damaged ceramic rings need to be replaced individually, eliminating the need for complete replacement. This saves costs and reduces equipment downtime.Applications: Suitable for slurry pipelines, chemical acid pipelines, high-temperature flue gas pipelines, power plant ash pipelines, and other applications. It can easily handle complex operating conditions characterized by heavy wear, severe corrosion, and high temperatures. Alumina Ceramic Plate Welding Process AnalysisAlumina ceramic plates can be welded to the inner wall of a pipe, creating a protective structure similar to "ceramic tiles welded to the inner wall of the pipe." Their performance characteristics differ significantly from adhesive-bonded ceramic plates. Core Advantages Compared to Adhesive Plates Higher Joint Strength: Welding is achieved by fusing or brazing the metal and ceramic, creating a stronger joint structure. In low-temperature, low-pressure environments with static fluids (such as clean water or mildly corrosive liquids), and provided the welding process meets standards, the welded plate adheres more tightly to the pipe and is less likely to fall off under fluid impact. No Adhesive Aging Risk: Reliance on adhesives is eliminated, fundamentally avoiding the risk of adhesive aging and failure in high-temperature, corrosive environments. When operating temperatures do not exceed 100°C and there is no severe corrosion, and provided the welds are flawless, welded plates generally offer better long-term stability than adhesive plates. Better Structural Integrity: Welded plates are often designed as single pieces or large-scale spliced ​​structures, providing a stronger overall continuity compared to the smaller, multiple-piece construction of adhesive plates. In scenarios where fluid impact is relatively uniform (such as low-speed, low-concentration slurry transportation), fewer structural gaps and less fluid accumulation can reduce the risk of localized corrosion. Main Disadvantages of Welding: Construction Difficulty: The melting point of alumina ceramic (approximately 2050°C) is much higher than that of metal pipes (e.g., steel, approximately 1500°C). The ceramic is prone to cracking due to the large temperature difference during welding, requiring extremely high technical skills. High Risk of Thermal Stress Damage: The thermal expansion and contraction coefficients of metal pipes and alumina ceramic plates differ significantly. After high-temperature welding, the welded area is prone to cracking or shedding due to concentrated thermal stress when the ambient temperature fluctuates. Alumina Ceramic Sheet Bonding Process OverviewSmall-sized alumina ceramic sheets are bonded to the inner wall of pipes using adhesive, similar to "mosaicing a pipe." Compared to welded plates, this process offers the following advantages and disadvantages.Core Advantages (Compared to Welded Ceramic Sheets)High Installation Flexibility: Small-sized tiles can be flexibly bonded to irregular surfaces such as pipe bends and flange joints.Low Initial Cost: Requires only adhesive and basic tools like scrapers and rollers; no welding equipment or specialized personnel are required, making it suitable for budget-constrained or temporary repairs.Easy Local Maintenance: If damaged, individual tiles can be scraped off, the adhesive removed, and re-attached, minimizing downtime.Suitable for Low-Temperature Applications: Specialized high-temperature-resistant adhesives (such as epoxy resins) provide stable performance for 3-5 years in temperatures ≤100°C and in non-corrosive fluids (such as sewage or weakly acidic liquids), meeting basic wear resistance requirements. The overall cost may be lower than welded plates. Main DisadvantagesGlue easily ages and loses its effectiveness: At temperatures ≥100°C or in corrosive fluid environments, the adhesive will fail within 3-5 years, causing the tiles to peel off like wallpaper. Many joint gaps: The large number of small tiles required for jointing creates gaps that can become weak points for fluid erosion and corrosion. Sealing risks: Gaps can become channels for fluid leakage, a risk that is more pronounced under high-pressure conditions. Alumina Ceramic Pipe Protection Solution Selection Recommendations Based on different operating conditions, the applicable scenarios and key features of alumina ceramic protection solutions are listed below, allowing you to select the solution you need. Alumina Ceramic Sleeve Designed specifically for curved pipeline structures, they offer outstanding wear resistance, corrosion resistance, and sealing. They are particularly suitable for extremely harsh operating conditions characterized by "heavy wear, severe corrosion, and high temperatures," providing comprehensive protection. Welded Alumina Ceramic Plates Recommended for applications with uniform fluid impact and relatively stable temperatures. A proven welding process is essential to avoid thermal stress cracking or unstable connections. Bonded Alumina Ceramic Sheets Suitable for low-temperature, low-pressure, and low-wear environments, such as conveying low-concentration slurries and pulverized coal. They can also be used as temporary or emergency repair solutions. Their core advantages include flexible installation, low initial cost, and simple ongoing maintenance.

2025

10/20