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APS-2260 histology rotary microtome is a manual model that is ideal for routine histology tissue sectioning. With universal cassette clamp/block clamp holder.The hand-wheel can be locked in any position.Easy slicing,improve your work efficiency and give you high-quality tissue sections with our affordable microtome price. ApsNesswell Manual Rotary Microtome Features. – The rotary microtome APS-2260 is a manual model that is ideal for routine histology tissue sectioning. – This manual rotary microtome offers a sleek, but sturdy,provides high precision cutting and stability at an affordable price. – Ergonomical conception of devise, no feeling of tire for routine operation. – Easy slicing,improve your work efficiency and give you high-quality tissue sections. – Handweel system allow the handwheel locked at any position. – The universal cassette / block holder with self-contained level affords versatility and multiple angle adjustments. – Blade holder can be moved horizontal or vertical and slides easily onto the dovetail base. – For added safety, the knife holder comes equipped with an attached knife guard to cover the blade when the instrument is unattended. – The knife guard also contains an ejecting pin mechanism for safe and simple removal and disposal. – Large waste tray,easily removed for cleaning.

Insulating glass consists of two or more pieces of glass sealed around the edges with an air space between. Insulated glass has energy saving, brightness adjustment, sound insulation and other effects, which can make our life more comfortable. Longyang insulated glass using high quality float glass and low-e glass, with aluminum and warm spacers, the glass is widely used for curtain walls and windows. Thickness is 10-70mm, size 300x500-2700*6000mm

Minimum Order: 100

Based on high quality clear float glass, low iron glass and tinted glass, we are offering high quality mirror, and the mirror is with higher reflectance and lasting durability. Main product : Silver mirror, Aluminium mirror, Copper free mirror, Antique mirror. Thickness is from 2mm to 10mm, Max size is 2440*3360mm.

Minimum Order: 100

Dodecyl Dimethyl Benzyl Ammonium Chloride (DDBAC) CAS No.: 8001-54-5,63449-41-2,139-07-1 UN NO.: 3265 EINECS No.: 264-151-6 Molecular Formula: C21H38ClN Purity (%): 50-80 Appearance: Colorless or yellowish transparent liquid Packing: 200L plastic drum,IBC(1000L),customers' requirement. Other Name: Benzalkonium Chloride; BKC; DDBAC; Lauryl dimethyl benzyl ammonium chloride

Minimum Order: 20 square metres

Sodium Alginate Sodium alginate, a natural polysaccharide derived from seaweed, is widely employed as a versatile thickening, stabilizing, and gelling agent in food, pharmaceutical, and textile applications. CAS Number: 9005-38-3 EINECS NO.: 618-238-3 Molecular Formula: (C6H7NaO6)n Purity (%): Typically 95% or higher Appearance: Off-white to light yellowish powder Packing: Available in various forms, including bags, drums, or bulk shipments, depending on the quantity and application requirements.

Minimum Order: 20 square metres

Incoloy 925 bars are advanced nickel-based alloys designed to offer excellent corrosion resistance and high strength in challenging environments. With their exceptional performance at high temperatures and resistance to a wide range of aggressive chemicals, Incoloy 925 bars are the ideal choice for various industrial applications, especially in the chemical processing, aerospace, and oil & gas sectors. Key Properties of Incoloy 925 Bars High-Temperature Resistance: Incoloy 925 bars maintain their structural integrity and strength at elevated temperatures, often exceeding 1,000°C, depending on the specific alloy grade. This makes them suitable for high-heat applications, where other materials may fail. Corrosion and Oxidation Resistance: The high content of chromium and nickel in Incoloy 925 bars provides outstanding resistance to a wide range of corrosive environments, including acidic and oxidizing conditions, ensuring long-lasting durability. Excellent Mechanical Strength: With their high tensile strength and yield strength, Incoloy 925 bars provide durability under high mechanical stress, even in extreme industrial settings. Thermal Stability and Creep Resistance: These alloys are known for their ability to resist deformation (creep) and maintain their stability during prolonged exposure to high temperatures, enhancing reliability in high-temperature applications. Weldability and Machinability: Incoloy 925 bars can be easily welded and machined using appropriate techniques, offering flexibility for various fabrication and construction needs. Applications of Incoloy 925 Bars Petrochemical and Refining Industries: Incoloy 925 bars are used in furnace tubes, heat exchangers, and piping systems that are exposed to high temperatures, corrosive gases, and acidic environments. Their resistance to oxidation makes them ideal for demanding chemical processes. Power Generation: Incoloy 925 bars are commonly used in boiler components, nuclear reactors, and steam generators, where high heat resistance and mechanical strength are essential to ensure smooth operations. Aerospace Components: Used in jet engines and exhaust systems, Incoloy 925 bars provide the necessary stability and corrosion resistance required in high-temperature, high-stress aerospace environments. Marine and Chemical Processing Equipment: Incoloy alloys are highly resistant to saltwater, brine, and acidic conditions, making them ideal for valves, fittings, and other components exposed to aggressive marine environments. Oil and Gas Industry: Incoloy 925 bars are widely used in well tubing, casing, and completion equipment, offering resistance to sour gas and other harsh conditions found in deep-water exploration and production.

Product Description The Incoloy 800 H strip is a high-performance alloy product designed for use in harsh environments. Made from a combination of nickel, iron, and chromium, this strip exhibits excellent resistance to oxidation and corrosion, even at elevated temperatures. It’s known for its dimensional stability and is ideal for high-temperature applications where stress and temperature fluctuation are common. Key Features of Incoloy 800H Strip High-Temperature Resistance: The Incoloy 800H strip maintains its strength and integrity at temperatures exceeding 1,000°C, making it suitable for extreme conditions. Corrosion Resistance: With its high chromium and nickel content, Incoloy 800H provides outstanding resistance to corrosion and oxidation, ensuring long- lasting performance in chemical and industrial environments. Excellent Mechanical Strength: Incoloy 800H strip offers a tensile strength of 590 MPa, allowing it to withstand high mechanical stress. Thermal Conductivity: The material offers thermal conductivity of 11.5 W/m·K, contributing to efficient heat management in demanding environments. Elongation: With an elongation of 40%, the strip can undergo significant deformation without failure, making it adaptable to various manufacturing processes. Machinability: The strip features fair machinability, which allows it to be easily processed into custom shapes and sizes. Applications of Incoloy 800H Strip Petrochemical and Refining Industries The Incoloy 800H strip is widely used in industries where exposure to high temperatures and corrosive environments is a common challenge. It is perfect for manufacturing furnace tubes, heat exchangers, and piping systems in chemical plants, oil refineries, and other facilities. Power Generation Incoloy 800H is a critical material in the power generation industry, particularly for the production of heat exchangers, steam generators, and boiler components that require excellent resistance to high temperatures and corrosion. Aerospace and Aviation The Incoloy 800H strip is also used in aerospace components, including jet engines and exhaust systems, where its strength and thermal stability are essential. Marine and Chemical Processing Equipment Its corrosion resistance and ability to withstand extreme heat make Incoloy 800H an excellent choice for marine and chemical processing equipment, especially in saltwater or highly acidic environments. Oil & Gas Industry The Incoloy 800H strip is used in various components within the oil and gas industry, such as well tubing and casing, offering outstanding resistance to sour gas and high-temperature corrosion. Customization and Precision Customization Options for Incoloy 800H Strip Our Incoloy 800H strips are available with customizable dimensions and surface finishes to meet your specific needs. Whether you need a precision tolerance or specific corrosion resistance, our team can provide tailored solutions to match your application requirements. Material: Incoloy 800H (Fe-Ni-Cr Alloy) Shape: Strip Surface Finish: Bright Service: OEM/ODM (customization available) Advantages of Incoloy 800H Strip Longevity and Durability The Incoloy 800H strip is built to last, offering a long service life even in high-temperature and corrosive environments, reducing maintenance and replacement costs. Enhanced Safety and Reliability Due to its resistance to oxidation, corrosion, and high stress, Incoloy 800H provides added reliability and safety, which is critical in mission-critical industries. Cost-Effectiveness While Incoloy 800H may have a higher upfront cost, its extended durability and low maintenance requirements make it a cost-effective choice in the long run, especially for high-performance applications. Support and Services Our technical support team is always available to assist with any product- related queries. We offer comprehensive services, including customized solutions, maintenance, and repair to keep your Incoloy 800H strip in optimal working condition. Packaging and Shipping The Incoloy 800H strip is securely packaged in corrugated cardboard boxes, with protective wrapping to prevent damage during transit. We ship via reputable carriers like UPS, FedEx, or DHL, ensuring safe and timely delivery. A tracking number will be provided so you can monitor your shipment's progress.

The GH3039 High Temperature alloy wire is a nickel-based superalloy that contains a unique combination of elements, including nickel, chromium, cobalt, molybdenum, aluminum, and titanium. Nickel serves as the primary matrix element, providing excellent corrosion resistance and oxidation resistance. The addition of chromium enhances the alloy's ability to resist high-temperature oxidation, while molybdenum increases strength and wear resistance. Aluminum and titanium form a strengthening phase, which significantly improves the alloy's performance at elevated temperatures. As demand for high-performance materials grows in industries like aerospace and energy, the development and application of GH3039 nickel-based alloys have expanded. Researchers are continuously optimizing the alloy's composition and exploring new processing technologies to enhance its performance further. Additionally, stricter environmental regulations are driving the evolution of more sustainable and eco-friendly production processes for GH3039 alloy. Key Features of GH3039 Alloy High-Temperature Strength: GH3039 alloy excels at high temperatures, maintaining excellent mechanical properties even in extreme heat. Corrosion and Oxidation Resistance: The alloy’s composition offers outstanding resistance to oxidation and corrosion, even in harsh environments. Durability and Wear Resistance: With the addition of molybdenum, GH3039 enhances its wear resistance and overall longevity in high-stress applications. Strengthened Performance: The incorporation of aluminum and titanium helps to form a strengthening phase, ensuring the alloy performs reliably in high- temperature environments. Applications of GH3039 Alloy GH3039 alloy is widely used in industries that require materials with exceptional performance under high temperature and stress. Some key applications include: Aerospace Industry GH3039 alloy is commonly used for turbine blades, nozzles, and other critical components that need to withstand the high temperatures and stresses found in jet engines and other aerospace applications. Power Generation In power plants and energy production facilities, GH3039 is used for steam turbine components, heat exchangers, and other machinery that operates under extreme heat and pressure. Chemical and Petrochemical Industries Due to its excellent corrosion resistance, GH3039 alloy is suitable for components exposed to corrosive chemicals, including reactors, pipes, and vessels in refineries and chemical plants. Marine Engineering The alloy’s resistance to corrosion in saline environments makes it an ideal choice for marine applications, such as propeller shafts, pumps, and valves used in ships and offshore platforms. Production Process The production of GH3039 alloy involves multiple stages, including advanced melting and forging techniques to ensure high purity and superior mechanical properties. These methods help create a material that maintains stability in extreme conditions, such as high temperature and pressure. Rigorous quality control procedures are followed to ensure that every batch of GH3039 alloy meets industry standards for strength, durability, and performance.

Product Description Incoloy 925 wire is a high-performance nickel-chromium-based alloy that offers excellent resistance to high temperatures, oxidation, and corrosion. It is primarily composed of nickel, chromium, and iron, with small amounts of molybdenum, copper, and titanium. This combination provides outstanding performance in harsh environments, making Incoloy 925 an ideal material for use in industries where high corrosion resistance and structural integrity at elevated temperatures are required. Originally designed for the aerospace and chemical processing industries, Incoloy 925 has become a preferred choice in various sectors, including marine, petrochemical, power generation, and more. Its exceptional combination of mechanical properties makes it indispensable in high-performance applications. Key Characteristics of Incoloy 925 High-Temperature Strength: Incoloy 925 retains its strength and mechanical properties at elevated temperatures, making it suitable for components exposed to high heat. Corrosion Resistance: This alloy exhibits excellent resistance to corrosion in both reducing and oxidizing environments, including acids, alkalis, seawater, and industrial gases. Oxidation Resistance: Thanks to its high chromium content, Incoloy 925 offers exceptional oxidation resistance, particularly at high temperatures, extending the lifespan of exposed components. Creep Resistance: The alloy resists creep, making it ideal for high-pressure and high-temperature environments where deformation can be a concern. Weldability: Incoloy 925 can be welded with various techniques, allowing for the fabrication of complex parts and structures. Versatility: Incoloy 925 is available in various forms, including strips, plates, bars, and tubes, providing flexibility for a wide range of industrial applications. Applications of Incoloy 925 Alloy Strip Incoloy 925 alloy strips are used in industries where high temperature, corrosion resistance, and mechanical strength are critical. Here are some common applications of Incoloy 925 alloy strips: Heat Exchangers Due to its excellent corrosion and oxidation resistance, Incoloy 925 is used in heat exchangers, especially in chemical plants, power generation facilities, and HVAC systems. Electrical Heating Elements Incoloy 925 strips are commonly used in electrical heating elements for appliances such as ovens, toasters, and industrial heating systems. Its high temperature tolerance and resistance to oxidation make it ideal for these applications. Thermocouples Incoloy 925 is used in thermocouples for accurate temperature measurement in high-temperature environments such as aerospace, petrochemical, and automotive industries. Flexible Connectors Incoloy 925 strips are used in flexible connectors for exhaust systems, pipelines, and furnace components, offering durability under thermal expansion and contraction conditions. Gaskets and Seals Incoloy 925 is used in the manufacturing of gaskets and seals for high- temperature and corrosive environments, such as in chemical processing, oil refineries, and power plants. Spring Manufacturing The alloy's combination of strength and flexibility makes Incoloy 925 ideal for producing springs used in automotive, aerospace, and industrial machinery applications. Electronics Incoloy 925 strips are employed in electronic components, such as battery contacts, sensors, and heating elements, where resistance to corrosion and oxidation is essential.

Product Description High-temperature alloys, also known as "superalloys," are materials based on nickel, iron, and cobalt that are designed to withstand extreme temperatures, typically above 600°C, while maintaining strength and structural integrity. These alloys exhibit excellent oxidation and corrosion resistance, along with outstanding fatigue performance and fracture toughness, making them ideal for high-stress, high-temperature environments. A key characteristic of high-temperature alloys is their single austenite structure, which offers excellent organizational stability and reliability across various temperature ranges. Due to their high degree of alloying, high- temperature alloys are crucial in industries such as aviation, aerospace, petrochemical, and power generation. High-temperature alloys are divided into: Iron-based alloys: Generally used at temperatures up to 750–780°C. Nickel-based alloys: These alloys, including GH3030 , are often used in jet engines and industrial gas turbines due to their ability to perform at even higher temperatures. Cobalt-based alloys: Used in specialized applications where high strength is required. Nickel-based alloys, such as GH3030, are particularly valued in the aerospace and energy industries for their ability to operate at the highest temperature ranges. Key Features of GH3030 High Temperature Alloy Bar High-Temperature Strength: GH3030 maintains structural integrity even at temperatures exceeding 600°C, making it ideal for high-temperature environments. Excellent Oxidation Resistance: The high chromium content provides superior oxidation resistance, which extends the service life of components in high-heat applications. Corrosion Resistance: Resistant to corrosive environments, including acidic and oxidizing conditions, GH3030 performs well in harsh environments like those found in the aerospace and petrochemical industries. Good Fatigue Performance: With strong fatigue resistance, GH3030 is suitable for components that are subjected to cyclic stresses over extended periods. High Creep Resistance: The alloy resists deformation (creep) under sustained load at high temperatures, an essential property for components such as turbine blades and furnace parts. Weldability: GH3030 can be welded using standard techniques, making it suitable for fabrication into complex structures and components. Manufacturing Process Melting The process begins with the melting of high-purity raw materials in an electric arc furnace or induction furnace. This step removes impurities and ensures the desired chemical composition. Casting After the melting process, the alloy is cast into ingots. These ingots undergo a homogenization heat treatment to eliminate segregation and ensure uniformity throughout the material. Forging The ingots are heated above 1100°C and then hot-forged to achieve the required shape and structure. This step enhances the mechanical properties by refining the alloy’s microstructure. Hot Rolling The material is then hot-rolled to reduce thickness and achieve the final bar dimensions. This process also improves the alloy's directional properties, which are critical for its mechanical strength. Annealing The rolled bars are annealed at temperatures between 900–950°C to relieve internal stresses and improve ductility. This step ensures that the material is ready for further machining. Finishing Finally, the bars are cut to specified lengths and undergo surface treatments, which may include grinding, polishing, or coating to improve resistance to environmental factors.

In sealing applications, skeleton oil seals are widely used in automobiles, industrial equipment, and various transmission systems. Practical experience shows that sealing performance depends not only on rubber materials and structural design, but more critically on a clear understanding of the lip sealing mechanism and a well-calculated interference fit. This article provides a systematic explanation of the sealing principles and lip interference design of skeleton oil seals from an engineering perspective, offering guidance for selection and design. Structure and Key Parameters of skeleton oil seals Sealing Structure Parameters Structurally, skeleton oil seals achieve sealing primarily through the interaction between the lip and the rotating shaft. Key design parameters include: Lip Type: Single lip: Suitable for general sealing needs Double lip (with dust lip): Designed for environments with external contaminants such as dirt, moisture, or mud Spring Configuration: With spring (e.g., TC, TB types): Provides continuous radial preload, ideal for high-speed or high-pressure conditions Without spring: Used in low-speed, low-pressure, or static sealing scenarios Lip Angle and Thickness: These directly affect the oil film’s ability to form and return, and are critical for achieving dynamic sealing performance. Together, these structural parameters determine the seal’s adaptability to various operating conditions. Definition of Lip Interference Lip interference refers to the dimensional difference between the oil seal’s inner diameter in its free state and the actual operating shaft diameter. Once installed, the lip undergoes elastic deformation due to interference, generating continuous radial contact pressure on the shaft surface—this is the foundation of effective sealing. For standard rotary sealing applications, the following reference ranges are commonly used: Radial interference (single side): approximately 0.2 to 0.4 mm Corresponding diameter interference: approximately 0.4 to 0.8 mm Exact values should be adjusted based on shaft diameter and operating conditions. Fit Parameters and Operating Influences Beyond the seal itself, shaft and system conditions also significantly affect sealing performance. Key factors include: Shaft Surface Roughness: Typically controlled within Ra 0.2 to 0.8 μm Shaft Diameter Tolerance and Concentricity Operating Speed and Temperature Range Typical Application Scenarios skeleton oil seals are commonly used in rotary sealing environments such as: Automotive engines, transmissions, and electric drive systems Industrial motors, pumps, and fans Gearboxes, drive shafts, and mechanical shaft ends In these applications, the seal must not only prevent lubricant leakage but also allow a stable micro oil film to form between the lip and shaft. This reduces friction and wear, ensuring long-term reliability. Sealing Mechanism and Common Issues Sealing Principle of skeleton oil seals skeleton oil seals do not achieve sealing by simply compressing the lip tightly. Instead, sealing is accomplished through the coordinated action of several mechanisms: Lip interference generates initial contact pressure Shaft rotation forms a thin lubricating oil film between the lip and shaft The oil film reduces friction and creates an inward pumping effect Spring-loaded designs provide continuous compensation, maintaining stable contact This oil-film-based dynamic sealing mechanism is the key to long-term, stable operation. Typical Problems Caused by Improper Interference In practice, incorrect interference selection can lead to a range of issues: Excessive Interference: Increased friction and operating temperature Accelerated lip wear Early failure under high-speed conditions Insufficient Interference: Inadequate contact pressure Unstable oil film Leakage or oil flinging Therefore, interference must be carefully balanced to ensure both sealing performance and service life. Key Factors Affecting Interference Selection During engineering design and selection, interference should be determined based on a combination of the following factors: Shaft Speed: Higher speeds typically require reduced interference to minimize friction and heat Operating Temperature: High temperatures soften rubber, so interference may need to be increased Sealing Medium: Low-viscosity fluids demand more stable contact pressure Rubber Material: NBR (Nitrile Rubber): Suitable for standard interference designs FKM (Fluororubber): Offers higher hardness and temperature resistance, requiring more precise interference control Spring Inclusion: Seals with springs are less dependent on the rubber body’s interference and offer greater adaptability Through a combination of well-designed lip interference, stable dynamic oil film formation, and appropriate spring compensation, skeleton oil seals achieve reliable sealing on rotating shafts. Lip interference is not a fixed value—it must be determined based on shaft dimensions, operating conditions, and material properties. A scientifically grounded and well-balanced interference design is essential for achieving both sealing reliability and optimal service life.

Minimum Order: 1000

In sealing systems, the skeleton oil seal (also known as a rotary shaft seal) plays a critical role. It must not only prevent the leakage of lubricants but also block the intrusion of external contaminants such as dust and moisture. While many believe that sealing performance depends mainly on material and structural design, the true core lies in the sealing mechanism at the lip and the proper design of the interference fit. This article provides a systematic analysis of the sealing mechanism and lip interference design of skeleton oil seals from an engineering application perspective, helping you avoid common pitfalls in selection and design. Structural Parameters of skeleton oil seals The structural design of a skeleton oil seal directly affects its sealing performance and service life. Key aspects include: Lip Type Single Lip: Suitable for general sealing applications Double Lip (with dust lip): Ideal for environments with external contaminants such as dirt, water, or mud Spring Inclusion With Spring (e.g., TC, TB types): Provides continuous radial preload, suitable for high-speed or high-pressure conditions Without Spring: Used in low-speed, low-pressure, or static sealing applications Lip Angle and Thickness These parameters influence oil film formation and oil return capability, and are critical for achieving dynamic sealing performance. Definition and Reference Range of Lip Interference Lip interference refers to the dimensional difference between the oil seal’s inner diameter in its free state and the actual shaft diameter. It determines the contact pressure between the lip and the shaft, forming the basis of sealing performance. Typical Reference Range (for standard rotary oil seals) Radial interference (single side): approximately 0.2 to 0.4 mm Corresponding diameter interference: approximately 0.4 to 0.8 mm Properly designed interference ensures effective sealing while minimizing friction and wear, thereby extending service life. Fit Parameters and Operating Conditions Several factors significantly influence sealing performance in real-world applications: Shaft Surface Roughness: Recommended Ra between 0.2 and 0.8 μm. Surfaces that are too rough or too smooth can destabilize the oil film. Shaft Diameter Tolerance and Concentricity: Must meet standard specifications to avoid eccentric wear. Operating Speed and Temperature: High-speed or high-temperature conditions require careful material selection and interference design. Sealing Medium Characteristics: Lubricant viscosity and additives can affect oil film behavior. Sealing Mechanism: Dynamic Oil Film Sealing skeleton oil seals do not rely solely on tightly compressed lips for sealing. Instead, they function through a combination of mechanisms: Initial contact pressure generated by lip interference Formation of a thin oil film between the lip and the rotating shaft The oil film reduces friction and creates an inward pumping effect The spring provides continuous compensation for lip wear, maintaining stable contact This dynamic oil film sealing mechanism is the foundation of long-term, reliable performance. Common Issues Caused by Improper Interference Excessive Interference Increased friction and heat generation Accelerated lip wear and shortened service life Early failure under high-speed conditions Insufficient Interference Inadequate contact pressure and poor sealing Unstable oil film, leading to leakage or oil flinging Spring compensation may be insufficient to maintain sealing Therefore, interference must be carefully balanced to ensure both sealing effectiveness and durability. Key Factors Affecting Interference Design Shaft Speed: Reduce interference at high speeds to lower friction and heat generation Operating Temperature: Increase interference slightly in high-temperature environments due to rubber softening Sealing Medium: Low-viscosity fluids require more stable contact pressure Rubber Material: Nitrile rubber suits standard designs; fluororubber requires more precise interference Spring Inclusion: Seals with springs are less dependent on body interference and offer greater adaptability Typical Application Scenarios skeleton oil seals are widely used in the following rotary sealing applications: Automotive engines, transmissions, and electric drive systems Industrial motors, pumps, and fans Gearboxes, drive shafts, and various mechanical shaft ends In these environments, oil seals must not only prevent lubricant leakage but also maintain stable performance under high-speed, high-temperature, and high- pressure conditions. The sealing performance of a skeleton oil seal depends on both a well-designed lip structure and precisely calculated interference. Together, they form a stable oil film sealing system that ensures efficient and reliable equipment operation. In practical engineering, it is recommended to consider operating conditions, shaft dimensions, and material properties when designing and verifying interference. Only through scientific interference design can the optimal balance between sealing reliability and service life be achieved. If you are currently working on oil seal selection, sealing structure optimization, or troubleshooting sealing failures, feel free to reach out. Let’s explore more efficient solutions together.

Minimum Order: 1000

Sodium Pyrophosphate, also known as tetrasodium pyrophosphate, is a versatile compound used in various applications such as food processing, water treatment, and industrial processes for its buffering, chelating, and emulsifying properties. CAS Number: 7722-88-5 EINECS NO.: 231-767-1 Molecular Formula: Na4P2O7 Purity (%): Typically available in various purity levels, such as 98% and above. Appearance: Sodium Pyrophosphate is commonly available as a white, crystalline powder or granules. Packing: such as bags, drums, or bulk shipments Sodium Pyrophosphate Uses Food Industry: Used for pH control, texture improvement, and ingredient stabilization in processed foods. Detergent Manufacturing: Softens water, aids dispersal, and enhances detergent cleaning efficiency. Water Treatment: Prevents scale formation in pipes, boilers, and cooling systems. Industrial Use: Acts as a chelating agent, improves solution stability, and aids in metal cleaning and electroplating. Laboratory and Research: Used as a reagent in chemical reactions and in buffer solutions.

Minimum Order: 20 square metres

Sodium tripolyphosphate, a versatile chemical compound, is commonly used as a detergent additive and water treatment agent. CAS Number: 7758-29-4 EINECS NO.: 231-838-7 Molecular Formula: Na5P3O10 Purity (%): 90%,94% Appearance: Sodium tripolyphosphate is usually a white, granular or powdered substance. Packing: 25kgs/bag Sodium Tripolyphosphate Uses Water Treatment: This substance is applied in water treatment to counteract scale and deposits within pipes, boilers, and cooling systems. It helps maintain optimal efficiency in water heating and cooling equipment. Detergent Industry: This compound is commonly utilized as a builder or chelating agent in laundry and dishwashing detergents. It enhances cleaning efficiency by preventing dirt redeposition and eliminating hard water minerals. Ceramic Industry: In ceramics, this compound serves as a dispersing agent and deflocculant. It improves the flow of ceramic slurries and reduces viscosity. Food Industry: Approved for use as a food additive, it finds application in various food processing tasks. It serves as a sequestrant, pH regulator, and texture enhancer in processed meats, seafood, dairy, and canned goods. Metal Treatment: Within metal cleaning and surface treatment, it acts as a dispersant and emulsifier in degreasers, rust removers, and plating baths. Other Industrial Uses: Its roles extend to multiple industrial processes, encompassing oil drilling, textiles, and paper production. It aids in dispersion, emulsification, and water hardness control.

Minimum Order: 20 square metres