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  • In addition to quality, CAS 13463-67-7 also places a strong emphasis on sustainability. The factory is dedicated to reducing its environmental impact by implementing eco-friendly practices and technologies. From waste reduction to energy efficiency, CAS 13463-67-7 is constantly looking for ways to improve its sustainability and contribute to a greener future.


    dye pigment cas 13463-67-7 titanium dioxide factory

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  • In the cosmetics industry, micro TiO2 is praised for its ultraviolet (UV) light absorption capabilities, making it an essential ingredient in sunscreens and skin care products. Its ability to scatter light also enhances opacity and whiteness, which is crucial in the production of toothpaste, paint, and paper.
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  • Both calcium carbonate and titanium dioxide play crucial roles in various industries, but they are used for different purposes. Calcium carbonate is primarily used as a filler and pigment, while titanium dioxide is used as a whitening agent and pigment. Additionally, titanium dioxide is more expensive to produce than calcium carbonate due to its synthetic nature and complex manufacturing process.


  • The Transformative Power of TIO2 in Industrial Facilities
  • In conclusion, TIO2's role in the Chinese paint industry is both versatile and indispensable. Its capacity to enhance durability, color, and sustainability resonates with contemporary demands for high-performance and eco-friendly materials. As China continues to make strides in industrial innovation, the story of TIO2 remains a compelling chapter in the narrative of progress and preservation.
  • As the demand for high-performance plastics continues to grow, the use of lithopone as a key additive in the industry is expected to increase. Manufacturers are constantly looking for ways to improve the quality and cost-effectiveness of their products, and lithopone offers a versatile solution to help them achieve their goals.
  • At present, the domestic wet zinc smelting mainly adopts the roasting-leaching-electrowinning production process, and the zinc content in the acid leaching residue is generally 8-15%, some up to 20%, and the sulfur mass fraction is 6-12%, of which sulfuric acid The root mass fraction is 15-30%, mainly in the form of 0^0 4 (in this ammoniatic environment, the leaching rate of sulfate leaching in multiple stages can reach 70%). The zinc in the acid leaching residue is mainly in the form of ZnFe 2 0 4 . In order to recover these zinc, the treatment methods are currently available in the fire method and the wet method. The fire method is the rotary kiln evaporation method (Wilz method) and the fumigating furnace evaporation method. . The wet method has hot acid leaching or high temperature pressure leaching. The fire treatment process is long, the equipment maintenance is large, the investment is high, the working environment is poor, and a large amount of coal or metallurgical coking coal is consumed, which has low efficiency and large environmental pollution. Therefore, it is usually leached by hot acid or high-pressure leaching. These methods still have the disadvantages of: 1 consumption of a large amount of acid, low leaching rate, due to the large amount of calcium sulfate, calcium sulphate and other ultrafine particles to isolate the zinc oxide particles, resulting in Electrolytic zinc enterprises are difficult to leach in acid environment, and the second weak acid leaching is not meaningful because the recovery rate is too low. 2 If leached with strong acid, although ZnFe 2 0 4 is destroyed, the leaching rate is improved, but the iron leaching rate is also high (up to 60%). The pressure of iron removal is large, and more reagents are consumed. 3 High temperature and high pressure equipment is corroded. Serious, complicated equipment investment; 4 high operating costs, poor economic returns. 5 The last slag discharged is acid leaching residue, which brings new pollution to the environment. It has to be cured and landfilled, which not only pollutes the environment, but also wastes resources.
  • Another advantage of TIO2 is its excellent stability and resistance to fading. Unlike some other pigments, TIO2 does not degrade or change color over time, ensuring that your products maintain their quality and appearance for longer periods. This makes it an ideal choice for products that are exposed to sunlight or harsh environmental conditions.
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  • Studies have shown that TiO2 nanoparticles can cause cytotoxicity, genotoxicity, and oxidative stress in various cell types, including human lung cells and immune cells. These findings have led to calls for more research into the potential risks of TiO2 in water supplies and the development of guidelines for safe exposure levels.
  • One of the key factors that influence the quality of lithopone is its raw material composition. We carefully select high-quality barium sulfate and zinc sulfide as the main components, which are essential for the formation of the desired crystal structure and chemical properties of lithopone. To further enhance the performance of lithopone, we also add certain additives during the production process.
  • Titanium dioxide, a naturally occurring oxide of titanium, is valued for its exceptional opacity, high refractive index, and excellent UV resistance. Its chemical formula, TiO2, represents a combination of one titanium atom (Ti) and two oxygen atoms (O), forming a crystalline structure that gives it its unique properties.
  • Lithopone, also called zinc-barium white, is a very stable network molecular structure formed by the reaction of zinc sulfate and barium sulfide and calcined at high temperature. Lithopone is a white powder that is non-toxic and non-corrosive. It is insoluble in water and does not interact with hydrogen sulfide and alkali. It dissolves with acid and produces hydrogen sulfide gas.

  • Unfortunately, we studied that all of the above methods are employed after machining or forming, and they require a long process chain and costly production types of equipment [2124]. Therefore, we proposed a titanium alloy implant preparation process that integrated with cutting and surface modification. The oxygen-rich atmosphere increases the partial pressure of oxygen in the oxidizing environment, and the heat generated during the cutting process increases the temperature and the rate of the oxidation. It uses the cutting heat and oxygen-rich atmosphere generated during the cutting process to form the oxide film (TiO2) to improve the corrosion resistance of the titanium alloy. The experimental equipment is shown in Figure 2. Since the cutting temperature is the most important factor in the oxide film formation process, this paper carried out researches based on theoretical analysis and experimental investigation to acquire an ideal temperature range for the cutting process to achieve the oxide layer.

  • Titanium dioxide (TiO2) is a versatile and widely-used material in various industries, such as paints, plastics, paper, and cosmetics. TiO2 is valued for its ability to provide brightness, whiteness, and opacity, making it an essential component in many products. With the advancement of technology, TiO2 manufacturers are continuously looking for innovative ways to improve production processes and enhance product quality.
  • Environmental considerations also significantly impact the pricing and operations of titanium dioxide factories. As global sustainability initiatives gain momentum, manufacturers are under increasing pressure to adopt cleaner technologies and reduce waste As global sustainability initiatives gain momentum, manufacturers are under increasing pressure to adopt cleaner technologies and reduce waste As global sustainability initiatives gain momentum, manufacturers are under increasing pressure to adopt cleaner technologies and reduce waste As global sustainability initiatives gain momentum, manufacturers are under increasing pressure to adopt cleaner technologies and reduce wastefactory price tio2 titanium dioxide factories. This shift towards greener practices not only benefits the planet but can also provide a competitive edge by reducing long-term operational costs.
  • In conclusion, titanium dioxide stands as a testament to the marvels of chemistry and engineering. As we continue to explore its potential, it remains an essential part of the wholesale pigment industry, contributing to products that touch every aspect of our lives. From enhancing the vibrancy of colors to combating pollution and advancing renewable energy technologies, titanium dioxide is indeed a remarkable substance with an ever-expanding palette of applications.