Standard General Silicon 245 g 24psc inbox container 40f takes about 3280 box container 20f takes about 2200 box
heater Silicon 320 g 24 psc x Boxs container 40f takes about 3280 box container 20f takes about 2200 box
Glass Silicon 320g 24 pec X box container 40f takes about 3280 box container 20f takes about 2200 box
container 40f takes about 3280 box container 20f takes about 2200 box
High Normal General Silicon 280g X 24 Boxs container 40f takes about 3280 box container 20f takes about 2200 box
silicone sealant WD-N Windows And Doors Neutral NIMER44 330GMS GROSS WEIGHT Manufactured In The Sultanate Of Oman
General Purpose Silicone Sealant Brand Name SHARK44 Manufactured In The Sultanate Of Oman
High Tempreture Silionce Sealant Formulated In The USA Manufactured In The Sultanate Of Oman Take Above 280 Celcious Tempreture GROSS WEIGHT 330GMS Gasket Maker
Titanium dioxide.
Ferrous and non ferrous metal and minerals, ferrosilicon, magnesium ingot, rebar, billet, silicone ore, dolomite ore, calcinated dolomite, sponge iron and pellet, iron ore, bentonite, microsilica, florin.Trading
Silicone sealants.
Silicone sealants, we are manufacturers of silicone sealant at the sultanate of oman of the highest quality and standards..Manufacturer & exporter
Zeolite, the multifaceted mineral catalyst for sustainable innovation is a remarkable group of minerals with astounding versatility Zeolite has increasingly become a cornerstone in sustainable technology and environmental management. These micro porous aluminosilicates - comprised of aluminum, silicon, and oxygen, with their general chemical formula expressed as Mx/n[(AlO2)x(SiO2)y]zH2O, where 'M' represents the exchangeable cations like calcium, sodium, potassium, and magnesium- formed naturally and synthesized for tailored properties, exhibit unique characteristics that make them indispensable across numerous industries, from environmental cleanup to advanced manufacturing. Properties of Zeolite Zeolites are primarily made up of silicon, aluminum, and oxygen in a framework that includes size-selective pores and channels. These structural features are critical because they allow zeolites to act both as molecular sieves, trapping particles based on size exclusion, and as ion exchangers, selectively swapping cations such as calcium, potassium, and sodium. Zeolites are hydrophilic, meaning they can absorb water and other polar molecules. However, modifications during synthesis can adjust this property, allowing for hydrophobic zeolites that are selective for organic compounds, expanding their utility in non-aqueous environments. Versatile Applications: Environmental Remediation: Zeolites are extensively used in water treatment processes to remove pollutants like heavy metals, ammonia, and radioactive isotopes from contaminated waters. Their high ion-exchange capacity makes them excellent for use in both municipal and industrial wastewater treatment plants. Energy Efficiency: In the energy sector, zeolites are pivotal in refining petroleum products through fluid catalytic cracking, significantly enhancing yield and reducing byproducts. Additionally, zeolites are integral to the development of adsorption-based energy storage systems, which are crucial for renewable energy integration. Agricultural Enhancements: Zeolite's role in agriculture extends beyond soil amendment. It is used to stabilize nitrogen in urea-based fertilizers, reducing volatilization and thereby increasing nitrogen use efficiency. This contributes to lower emissions of nitrous oxide, a potent greenhouse gas. Healthcare Innovations: In healthcare, zeolites are being investigated for their potential in drug delivery systems, particularly for targeted cancer therapies. Their porous structure can be engineered to load and release therapeutic agents directly at tumor sites, minimizing systemic side effects.
Bentonite is a remarkable natural resource that plays a critical role in many industries. As industries continue to seek sustainable and effective materials, bentonite is poised to remain a key player in the global market. For customers looking for reliable, high-quality bentonite, our company offers tailored solutions that meet a wide range of needs. Introduction to Bentonite Bentonite is a highly versatile clay known for its unique properties, including swelling, viscosity, and adsorption. Formed from the weathering of volcanic ash, bentonite contains predominantly montmorillonite clay minerals. Its unique properties make it essential in various industries, ranging from oil drilling to health and beauty. Properties of Bentonite Bentonite's key properties stem from its mineralogical composition. It can absorb substantial amounts of water, which allows it to expand and form gel-like masses. This makes it extremely useful as a sealing agent, binder, and purification substrate. The typical elemental makeup includes high levels of silica and aluminum, with smaller amounts of calcium, magnesium, and iron, which confer its ability to bond and react with other substances. Bentonite Formula and Elemental Composition: Bentonite is primarily composed of montmorillonite, a type of clay mineral that belongs to the larger family of phyllosilicates. Montmorillonite itself can vary slightly in chemical composition, but generally, it can be represented by a simplified formula: Na,Ca0.33(Al,Mg)2(Si4O10)(OH)2nH2O. The elemental makeup of bentonite includes a mix of several primary elements which contribute to its properties: Silicon (Si, (Aluminum (Al), Magnesium (Mg), Calcium (Ca), Sodium (Na), Oxygen (O) and Hydrogen (H). Mining and Production of Bentonite The mining of bentonite is a meticulous process that involves extracting material from open-pit mines. The extracted bentonite is then refined and processed into various grades, depending on its intended use. Major bentonite mining regions include the Western United States, Greece, and Australia, where mining techniques are designed to minimize environmental impact while maximizing yield. Applications of Bentonite Bentonite has a wide range of applications due to its versatile properties. It is used in drilling mud for oil and gas wells, as a binder in the foundry industry, in environmental applications such as landfill liners, and as a carrier in fertilizers. It also finds applications in personal care products, due to its absorbent and viscosity-modifying properties.
Silicone glue.
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Normal Silicon 245 g 24psc inbox hight Silicon 280 g 24 psc inbox Large Silicon 320 g 24 psc inbox heater Silicon 320 g 24 psc inbox FOAM : 800 g - 600 g - 350 g container 40f take around 3280 box container 20f takes around 2200 box
calcium oxide (CaO), or commonly referred to as quicklime, is a high calcium content derivative of our 98.5% pure calcium carbonate (limestone). Calcium oxide is produced by heating calcium carbonate to 2000 degrees F where carbon dioxide disassociates as a gas from the calcium carbonate: {CaCO3} + Heat = {CaO} + {CO2} Calcium oxide can be utilized in a variety of applications because of its physical and chemical qualities. Arij Global Trading quicklime is used in flue gas desulfurization, water and waste water treatment, steel, paper, chemical and environmental applications.
Ammonia is one nitrogen fertilizer component that can be synthesized from in-expensive raw materials. Since nitrogen makes up a significant portion of the earth's atmosphere, a process was developed to produce ammonia from air. In this process, natural gas and steam are pumped into a large vessel. Next, air is pumped into the system, and oxygen is removed by the burning of natural gas and steam. This leaves primarily nitrogen, hydrogen, and carbon dioxide. The carbon dioxide is removed and ammonia is produced by introducing an electric current into the system. Catalysts such as magnetite (Fe3O4) have been used to improve the speed and efficiency of ammonia synthesis. Any impurities are removed from the ammonia, and it is stored in tanks until it is further processed. Potassium fertilizer component: Potassium chloride is typically supplied to fertilizer manufacturers in bulk. The manufacturer converts it into a more usable form by granulating it. This makes it easier to mix with other fertilizer components in the next step. Granulating and blending To produce fertilizer in the most usable form, each of the different compounds, ammonium nitrate, potassium chloride, ammonium phosphate, and triple superphosphate are granulated and blended together. One method of granulation involves putting the solid materials into a rotating drum which has an inclined axis. As the drum rotates, pieces of the solid fertilizer take on small spherical shapes. They are passed through a screen that separates out adequately sized particles. A coating of inert dust is then applied to the particles, keeping each one discrete and inhibiting moisture retention. Finally, the particles are dried, completing the granulation process. The different types of particles are blended together in appropriate proportions to produce a composite fertilizer. The blending is done in a large mixing drum that rotates a specific number of turns to produce the best mixture possible. After mixing, the fertilizer is emptied onto a conveyor belt, which transports it to the bagging machine. Bagging: Fertilizers are typically supplied to farmers in large bags. To fill these bags the fertilizer is first delivered into a large hopper. An appropriate amount is released from the hopper into a bag that is held open by a clamping device. The bag is on a vibrating surface, which allows better packing. When filling is complete, the bag is transported upright to a machine that seals it closed. The bag is then conveyored to a palletizer, which stacks multiple bags, readying them for shipment to distributors and eventually to farmers.
Base Oil & Lubricants) Group I - SN 150 / SN 500: Group I base oils are classified as less than 90 percent saturates, greater than 0.03 percent sulfur and with a viscosity-index range of 80 to 120. The temperature range for these oils is from 32 to 150 degrees F. Group I base oils are solvent-refined, which is a simpler refining process. This is why they are the cheapest base oils on the market. Group II base oils are defined as being more than 90 percent saturates, less than 0.03 percent sulfur and with a viscosity index of 80 to 120. They are often manufactured by hydrocracking, which is a more complex process than what is used for Group I base oils. Since all the hydrocarbon molecules of these oils are saturated, Group II base oils have better antioxidation properties. They also have a clearer color and cost more in comparison to Group I base oils. Still, Group II base oils are becoming very common on the market today and are priced very close to Group I oils. Group III base oils are greater than 90 percent saturates, less than 0.03 percent sulfur and have a viscosity index above 120. These oils are refined even more than Group II base oils and generally are severely hydrocracked (higher pressure and heat). This longer process is designed to achieve a purer base oil. Although made from crude oil, Group III base oils are sometimes described as synthesized hydrocarbons. Like Group II base oils, these oils are also becoming more prevalent. Group IV base oils are polyalphaolefins (PAOs). These synthetic base oils are made through a process called synthesizing. They have a much broader temperature range and are great for use in extreme cold conditions and high heat applications. Group V base oils are classified as all other base oils, including silicone, phosphate ester, polyalkylene glycol (PAG), polyolester, biolubes, etc. These base oils are at times mixed with other base stocks to enhance the oil’s properties. An example would be a PAO-based compressor oil that is mixed with a polyolester. Esters are common Group V base oils used in different lubricant formulations to improve the properties of the existing base oil. Ester oils can take more abuse at higher temperatures and will provide superior detergency compared to a PAO synthetic base oil, which in turn increases the hours of use.
