Products

N-Perfluorooctane Sulfonates, Triethoxypropylsilane

    Specifications

    HS Code

    896971

    Chemical Formula N Perfluorooctane Sulfonates C8F17SO3 -
    Chemical Formula Triethoxypropylsilane C9H22O3Si
    Molecular Weight N Perfluorooctane Sulfonates 500.2 g/mol
    Molecular Weight Triethoxypropylsilane 206.36 g/mol
    Appearance N Perfluorooctane Sulfonates Colorless to white solid
    Appearance Triethoxypropylsilane Clear, colorless liquid
    Boiling Point N Perfluorooctane Sulfonates Decomposes
    Boiling Point Triethoxypropylsilane 195 - 198 °C
    Melting Point N Perfluorooctane Sulfonates 50 - 54 °C
    Melting Point Triethoxypropylsilane - 70 °C
    Solubility N Perfluorooctane Sulfonates Soluble in water
    Solubility Triethoxypropylsilane Reacts with water, soluble in common organic solvents
    Vapor Pressure N Perfluorooctane Sulfonates Very low
    Vapor Pressure Triethoxypropylsilane 0.22 hPa (20 °C)
    Density N Perfluorooctane Sulfonates 1.78 g/cm³
    Density Triethoxypropylsilane 0.905 g/cm³
    Flash Point N Perfluorooctane Sulfonates Non - flammable
    Flash Point Triethoxypropylsilane 71 °C
    Acidity N Perfluorooctane Sulfonates Strongly acidic
    Acidity Triethoxypropylsilane Neutral

    As an accredited N-Perfluorooctane Sulfonates, Triethoxypropylsilane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1 kg of N - Perfluorooctane Sulfonates, Triethoxypropylsilane in sealed chemical - resistant packaging.
    Shipping N - Perfluorooctane Sulfonates and Triethoxypropylsilane must be shipped in accordance with strict chemical regulations. Use appropriate containers to prevent leakage. Label clearly for safe handling during transportation.
    Storage N - Perfluorooctane Sulfonates should be stored in a cool, dry area, away from heat sources and incompatible substances. Since they are persistent and bioaccumulative, strict containment is crucial. Triethoxypropylsilane should be stored in a tightly - sealed container in a well - ventilated place, as it may be flammable and reactive. Keep both chemicals in areas inaccessible to unauthorized personnel.
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    N-Perfluorooctane Sulfonates, Triethoxypropylsilane
    General Information
    Historical Development
    Since the chemical industry in the past, many wonders have gradually emerged. In modern times, there are two things, one is N-Perfluorooctane Sulfonates, and the other is Triethoxypropylsilane. N-Perfluorooctane Sulfonates first appeared, and everyone is curious about its nature, and it is used in industrial things. After a long time, I found that it may be unfavorable to the environment and human body, so I studied its replacement method. Triethoxypropylsilane also originated in time, with its characteristics, material modification and other achievements. Since its inception, researchers have gradually understood its use and continued to expand its scope. The interests of both are born out of need, but their journey has been both happy and worried. Researchers often think about ways to make good use of them, so as to promote their usefulness in the world. Follow this path and seek the progress of the chemical industry, hoping for better results in the future.
    Product Overview
    Nowadays, there are two substances, one N-perfluorooctane sulfonate and one triethoxy propyl silane. N-perfluorooctane sulfonate is stable, difficult to degrade in the environment, and bioaccumulative. In the past, it was widely used in industry, but gradually realized its harm, damage to ecology, and health, so it was subject to many restrictions.
    Triethoxy propyl silane is often used as a coupling agent, which can make the bonding between different materials more solid. It can bridge between inorganic and organic substances and increase the interfacial bonding force. It is mostly used in the fields of composite material preparation, coating modification, etc., to help improve material properties. Although the uses of the two are different, they are both important in the chemical industry and are related to industrial development and environmental ecology.
    Physical & Chemical Properties
    There are two substances today, called N - Perfluorooctane Sulfonates, said Triethoxypropylsilane, both of which are chemical products. N - Perfluorooctane Sulfonates has special physical and chemical properties, its stability, water resistance and oil resistance, but also because of its refractory degradation, it remains in the environment and is harmful to the ecology. Triethoxypropylsilane is often used as a coupling agent, which can enhance the bonding between different materials. Looking at the physical and chemical properties of the two, both are related to chemical applications and environmental impact. The stability of N - Perfluorooctane Sulfonates makes it widely used, but it has caused harm to the environment; the bonding properties of Triethoxypropylsilane help materials to composite and increase their performance. Chemical substances, advantages and disadvantages depend on each other, and those who use them should carefully weigh them to seek advantages and avoid disadvantages, maintain ecological security, and promote the progress of chemical industry.
    Technical Specifications & Labeling
    Today, there are N - Perfluorooctane Sulfonates and Triethoxypropylsilane products, which are related to their technical specifications and labels (product parameters), which is the key to our chemical research.
    View N - Perfluorooctane Sulfonates, its unique properties, in a specific reaction system, has extraordinary chemical activity, its purity needs to reach a very high standard, impurity content must be strictly controlled, in order to meet the needs of application. Triethoxypropylsilane, the molecular structure is exquisite, its hydrolysis characteristics and affinity with other substances, all have detailed technical specifications.
    On the label, when stating its chemical name, molecular formula, molecular weight, and with a clear warning label to indicate its safety precautions. Product parameters should also be accurately marked, such as density, boiling point, flash point, etc., for the user's detailed inspection. In this way, the technical specifications and labels are complete, which is of great benefit to chemical research.
    Preparation Method
    If you want to make N-Perfluorooctane Sulfonates and Triethoxypropylsilane products, you must study the raw materials and production process in detail. The preparation of N-Perfluorooctane Sulfonates is often obtained from fluorine-containing raw materials through multi-step reaction. Take the appropriate fluorinated hydrocarbons first, under specific reaction conditions, or after halogenation, followed by sulfonation to form sulfonic acids, and then convert them to obtain this product. The reaction steps require strict control of temperature, pressure and reaction time to achieve the best yield and purity.
    As for Triethoxypropylsilane, silane raw materials are often started. First, silane is reacted with halopropane to form halopropylsilane, and then treated with sodium ethanol and other reagents to replace the halogen atom with ethoxy group to obtain Triethoxypropylsilane. In this process, the catalytic mechanism is crucial to accelerate the reaction process and improve the quality of the product. In this way, excellent N-Perfluorooctane Sulfonates and Triethoxypropylsilane products can be obtained.
    Chemical Reactions & Modifications
    The chemical substances studied in modern times include N-Perfluorooctane Sulfonates and Triethoxypropylsilane. The chemical reaction and modification of these two are quite important in the academic community.
    N-Perfluorooctane Sulfonates have special properties. In many reactions, its performance is specific, or it promotes the speed of the reaction, or modifies the product. However, it also has drawbacks. It is difficult to degrade in the environment, and the legacy is quite large.
    Triethoxypropylsilane is often used as a modifying agent. Combined with other substances, it can reduce its surface properties and increase its adhesion and water resistance.
    If you want to make good use of these two, you must study their chemical application and modification methods in detail, weigh the advantages and disadvantages, and avoid the disadvantages in order to gain the benefits and avoid the disadvantages, so that the research of chemistry can benefit people and things, and achieve a perfect environment.
    Synonyms & Product Names
    Since modern times, chemical refinement has resulted in the emergence of new substances. Today, there are two substances, one is N-Perfluorooctane Sulfonates, and the other is Triethoxypropylsilane. N-Perfluorooctane Sulfonates, or perfluorooctane sulfonates, are widely used in various industrial fields. Its properties are stable, but because it is difficult to degrade, it is gradually hidden in the ecological environment. Triethoxypropylsilane, also known as triethoxypropylsilane, is effective in material modification, surface treatment and the like. Although the two have different names and have their own strengths, the beauty of chemistry is to explore their properties, make good use of their capabilities, and avoid their harm.
    Safety & Operational Standards
    About N-perfluorooctane sulfonate, triethoxypropylsilane product safety and operating specifications
    There are chemical substances today, called N-perfluorooctane sulfonate, and triethoxypropylsilane. These two are used in chemical things, or have great use, but their safety and operating specifications must not be ignored.
    N-perfluorooctane sulfonate, unique in nature, but potentially harmful. When operating, be careful. When it is used in a well-ventilated place to prevent it from entering the body and harming people's health. The utensils used must be clean and corrosion-resistant to avoid phasing with the material and causing changes.
    Triethoxypropylsilane is also unusual. It is easy to react when exposed to water or moisture. Therefore, when storing, it should be placed in a dry place, away from water sources. When taking it, your hands must be clean and the utensils must be dry to prevent accidental contact with water and cause accidents.
    To operate these two things, you need to wear protective gear, such as gloves, masks, protective clothing, etc. Once it touches the skin or enters the eyes, rinse with water as soon as possible, and seek medical attention if it is serious. And the operation room should prepare emergency equipment for emergencies.
    Furthermore, the disposal of waste is also in accordance with regulations. Do not discard it at will to prevent staining water and harm life. It must be properly disposed of in accordance with the specified laws to ensure the safety of the environment and the well-being of the people.
    In short, chemical substances, when used properly, will benefit the country and the people; if they are not standardized, there will be endless disasters. The safety and operation standards of N-perfluorooctane sulfonate and triethoxypropylsilane should be kept in mind and cannot be slack.
    Application Area
    Recently, the new compounds in the chemical industry include N-perfluorooctane sulfonate and triethoxy propyl silane. N-perfluorooctane sulfonate has unique properties and is widely used in the fields of surface activity, water resistance and oil resistance. Such as fabric processing, the treated fabric can resist water and oil, and is durable.
    Triethoxy propyl silane is a silicone coupling agent. In the manufacture of composite materials, it can enhance the bonding force between the substrate and the reinforcing phase and improve the material properties. In the coating industry, it can improve the adhesion of the coating to the substrate and make the coating more firm.
    The two are in the chemical application field, each has its own strengths, and has contributed to the development of many industries.
    Research & Development
    In recent years, Yu has dedicated himself to the research of N-Perfluorooctane Sulfonates and Triethoxypropylsilane products. The former has unique properties and has great application potential in many fields; the latter has exquisite structure and provides a new way for material modification.
    Our generation studied the reaction mechanism of the two in detail, tried repeatedly, and strived for accuracy. After many explorations, we finally got results. Progress has been made in the mining of the characteristics of N-Perfluorooctane Sulfonates and the optimization of the efficiency of Triethoxypropylsilane.
    At present, although the results are emerging, the road ahead is still far away. In the future, we will deepen the research and expand the application scope, hoping to push the two products to a higher level, and contribute to the development of the industry.
    Toxicity Research
    The genera of N-perfluorooctane sulfonate and triethoxypropylsilane are all related to toxicity research. These two are widely used in industrial things. However, its toxicity cannot be ignored.
    N-perfluorooctane sulfonate is stable and difficult to degrade. It enters the ecosystem and accumulates in organisms, or causes endocrine disorders and reproductive abnormalities. Triethoxypropylsilane, although widely used, may also irritate the human body and damage respiratory and skin systems.
    To study the toxicity of this substance, we set up experiments to measure its effect on biological cells and observe its degradation in the environment. We hope to obtain detailed and accurate results, clarify its toxic hazards, and establish safety regulations for future use of this product to protect the ecology and human safety.
    Future Prospects
    In the future, in the process of chemical product research, N - Perfluorooctane Sulfonates Triethoxypropylsilane and other materials have limited energy. Due to its special chemical properties, N - Perfluorooctane Sulfonates may be used to prevent the exposure of materials in the field, helping objects to withstand the frost of the moon. Triethoxypropylsilane is not much more, and its bonding properties may be able to greatly enhance the color of the composite material, so that the material is more solid. Our researchers, we will work hard to explore its deep understanding, hope to be able to use these two, expand the use of the new region, and leave the results of the world, achieving the foundation of the future.
    Where to Buy N-Perfluorooctane Sulfonates, Triethoxypropylsilane in China?
    As a trusted N-Perfluorooctane Sulfonates, Triethoxypropylsilane manufacturer, we deliver: Factory-Direct Value: Competitive pricing with no middleman markups, tailored for bulk orders and project-scale requirements. Technical Excellence: Precision-engineered solutions backed by R&D expertise, from formulation to end-to-end delivery. Whether you need industrial-grade quantities or specialized customizations, our team ensures reliability at every stage—from initial specification to post-delivery support.
    Frequently Asked Questions

    As a leading N-Perfluorooctane Sulfonates, Triethoxypropylsilane supplier, we deliver high-quality products across diverse grades to meet evolving needs, empowering global customers with safe, efficient, and compliant chemical solutions.

    What are the main application fields of N-perfluorooctane sulfonate and triethoxypropylsilane?
    "Tiangong Kaiwu" said: "Where the nitrate, flint, and mirabilite all come out of Shu, and those from Taiyuan are the top. Its essence is water essence, and when it enters the fire, it is flame, and when it is used with sulfur, it becomes fireworks." Today's discussion of the main application fields of whole scorpion and triethanolamine tert-butyl ether should be carefully examined.
    Whole scorpion, its use is extensive. In the field of medicine, it has great merit. Scorpion nature is thin and flat, poisonous, and belongs to the liver meridian. It has the effect of clearing the wind and suppressing spasms, clearing the collaterals and relieving pain, and attacking poison and dispersing knots. It is often used in children with convulsions, convulsions, midair vents, hemiplegia, tetanus, stubborn rheumatism, migraine, sores In the clinic of physicians, it is mostly used as medicine to treat all kinds of wind diseases, and its power is very great.
    It is also used in health care, and it also dabbles in. It is popular for medicinal diets, or ointment-making recipes to nourish the body, remove evil and correct.
    As for triethanolamine tert-butyl ether, it plays a pivotal role in the chemical industry. It can be an excellent surfactant. It can be used in daily chemical products such as shampoo and body wash to make the product have uniform texture, rich and stable foam, good cleaning power, and at the same time has good emulsification properties, so that oil and water blend and improve product quality.
    In the coating industry, it can improve the leveling and dispersion of the coating, make the coating uniform, reduce orange peel, shrinkage and other drawbacks, enhance the adhesion and gloss of the coating, and prolong the service life of the coating.
    Furthermore, in the textile auxiliary, it can give the fabric softness, antistatic and other characteristics, and improve the fabric's wearing comfort and functionality. The two are widely used, and each is good at winning the field. They are all needed by the world. They benefit people in different fields, which is something that cannot be underestimated.
    What are the effects of N-perfluorooctane sulfonate and triethoxypropylsilane on the environment?
    The impact of Fuquan Ze bezoar and triethoxyethyl silicone oil on the environment cannot be ignored.
    Quanze bezoar, although its properties may have medicinal effects, in the natural environment, if it is not properly disposed of, its ingredients may cause water and soil pollution. If its refining process is not properly regulated, wastewater and waste residue will be discharged, which may disturb the surrounding ecology. And if over-mining related organisms to obtain Quanze bezoar will break the balance of the biological chain and endanger the survival of many species.
    As for triethoxyethyl silicone oil, it has many applications in industry. If it escapes into the environment, in water bodies, or changes the surface tension of water, it will affect the survival of aquatic organisms. The physiological behaviors of aquatic insects such as walking on water and breathing of fish may be disturbed by it. In soil, silicone oil may hinder the air permeability and water permeability of soil, hinder the growth and development of plant roots, and cause poor plant growth. And its chemical stability is high, it is difficult to degrade naturally, and it accumulates for a long time, or it may cause soil structure deterioration.
    Furthermore, if triethoxyethyl silicone oil volatilizes into the atmosphere or interacts with other pollutants, it will generate harmful substances, damage air quality, and harm the respiratory health of humans and organisms. Therefore, Quanze bezoar and triethoxyethyl silicone oil should be used with caution during production, use and disposal, and follow scientific laws and strict regulations to reduce their harm to the environment and ensure ecological safety.
    What is the proportion of N-perfluorooctane sulfonate and triethoxypropylsilane used in different industries?
    There are many karma in the world, and it is difficult to be sure of the number of use cases of N + - whole liquid potassium borate to show calcium acid and triethoxyethyl borate in different industries. However, you can briefly describe the outline of various karma to see its approximation.
    In the industry of farming mulberry, N + - whole liquid potassium borate to show calcium acid can cultivate fertile soil and promote the growth of crops. It can replenish the boron, potassium and calcium elements of the soil, make the roots of crops flourish and the leaves flourish, and the flowers are fruitful. If you apply this agent in a mulberry garden, the mulberry leaves will be rich, and the silkworms will be fed with thick silk. Although triethoxyethyl borate is rarely used in this industry, it may be helpful for the protection of special plants, but it is used in fresh cases.
    To the industrial industry, N + -whole liquid boron potassium shows calcium acid or is used in metallurgy and ceramics. In metallurgy, it helps to remove impurities and increase the quality of metals; in ceramics, it adjusts the glaze color and makes it smooth and firm. Triethoxyethyl borate is mostly used in organic synthesis. It is an essential agent to prepare fine chemicals, such as raw materials for medicine and fragrances. Its use cases are more common in agriculture than in other industries or are not the most popular.
    In the medical industry, N + -whole liquid boron potassium shows calcium acid or is involved in pharmaceutical raw materials, and is related to pharmaceutical adjuvants, calcium supplementation, etc. In the drug synthesis path, triethoxyethyl borate is a key intermediate and participates in the creation of a variety of new drugs. Although not every drug is used, it is very important, and the use cases can also be viewed.
    Chemical industry, both are important. N + -total liquid boron potassium shows calcium acid in the production of coatings, glass, etc., to adjust properties and increase functions. Triethoxyethyl borate is an organic boride, which has many applications in catalytic reactions, polymer modification, etc. There are many use cases in the chemical industry, involving several branches.
    First of all, different industries have different use cases for N + -total boron potassium, calcium, and triethoxyethyl borate, making it difficult to compare the exact number. However, they all contribute a lot to the prosperity of the world.
    What is the production process of N-perfluorooctane sulfonate and triethoxypropylsilane?
    This is the production process of all liquid bromophenolic and triethoxyethylsilane in Ru Shu.
    For all liquid bromophenolic, the method of preparation is to first take phenols, such as phenol, etc., and formaldehyde, such as formaldehyde, in a certain ratio, into the reactor. Pre-fill the kettle with an appropriate amount of catalyst, such as acid or base catalyst, to promote its condensation reaction. The temperature is controlled in a suitable area, usually tens to hundreds of degrees Celsius, depending on the genus of phenolic and the nature of the catalyst used. During the reaction, continue to stir to make the material mix evenly to facilitate the reaction. When the reaction reaches the expected level, the viscosity and molecular weight of the system reach specific indicators, the first product of phenolic is obtained. Thereafter, the initial product is reacted with bromine in the halogenated device, and the temperature and speed are also controlled, so that the halogenated check point in the bromine and phenolic structure can fully function, and then the whole bromophenolic is formed.
    As for triethoxyethylsilane, the production process often uses vinyl-containing silane and ethanol as raw materials. First, the vinyl-containing silane is introduced into the reaction apparatus, and ethanol is added in proportion. An appropriate amount of catalyst is added. This catalyst is mostly one with specific catalytic activity for the reaction. The reaction is carried out at a specific temperature and pressure, and the general temperature is also in the tens to hundreds of degrees Celsius. The pressure depends on the specific reaction. Under these conditions, vinyl and ethanol undergo a series of reactions such as addition to form triethoxyethylsilane. After the reaction, high-purity triethoxyethylsilane is obtained through separation and purification processes, such as distillation and extraction, to remove impurities such as unreacted raw materials and by-products.
    The production process of both requires fine control of the reaction conditions to ensure the quality and yield of the product.
    What are the market prospects for N-perfluorooctane sulfonate and triethoxypropylsilane?
    At present, the market prospects of whole algae peptone and triethoxyethylsilane are worth exploring. Whole algae peptone is derived from algae and is rich in various nutrients, which are useful in microbial culture, biomedicine and other fields. Looking at the present, the vigorous development of microbial culture has increased the demand for whole algae peptone. In the field of biomedicine, because of its high-quality nutritional properties, it can help cell growth and proliferation, and the prospects are also good.
    As for triethoxyethylsilane, it is an organosilicon compound. It is widely used in the field of materials science. In coatings and adhesives, it can increase the adhesion and weather resistance of materials. With the development of construction, automotive and other industries, the demand for coatings and adhesives has risen, and the triethoxyethylsilane market has also expanded. And it has also emerged in the field of electronic materials, which can improve the electrical properties of materials, and the future potential is considerable.
    However, both also face challenges. Whole algae peptone production needs to optimize the process, reduce costs, and increase competitiveness. Triethoxyethylsilane production also needs to pay attention to environmental protection and cope with increasingly stringent environmental protection requirements. Overall, whole algae peptone and triethoxylsilane have broad market prospects under the demand of various fields, but they also need to deal with various problems in the development process in order to seek long-term development.