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One of the primary functions of titanium dioxide in plastic manufacturing is its ability to act as a potent ultraviolet (UV) light absorber. By incorporating TiO2 into plastic formulations, manufacturers can create materials that resist discoloration and degradation caused by exposure to sunlight and other sources of UV radiation. This not only extends the lifespan of the final product but also maintains its aesthetic appeal over time, making it especially valuable for outdoor applications such as gardening tools, outdoor furniture, and automotive parts.

CR-930 SERIES Direct Factory Titanium Dioxide

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For research published in 2022 study in the journal Food and Chemical Toxicology, scientists examined “the genotoxicity and the intracellular reactive oxygen species induction by physiologically relevant concentrations of three different TiO2 nanomaterials in Caco-2 and HT29-MTX-E12 intestinal cells, while considering the potential influence of the digestion process in the NMs’ physiochemical characteristics.” They found a “DNA-damaging effect dependent on the nanomaterial,” along with the micronucleus assay suggesting “effects on chromosomal integrity, an indicator of cancer risk, in the HT29-MTX-E12 cells, for all the tested TiO2 nanomaterials.” Researchers concluded that the results showcase “evidence of concern” regarding titanium dioxide used as a food additive.

Environmental concerns have become increasingly important in the TiO2 industry. Responsible suppliers invest in technologies that reduce environmental impact, such as waste recycling processes and cleaner production methods. Companies that prioritize sustainability are not only contributing to eco-friendly practices but may also benefit from preferential treatment in markets with strict environmental regulations.

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Titanium dioxide (E 171) is authorised as a food additive in the EU according to Annex II of Regulation (EC) No 1333/2008.  

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  • What are the transportation requirements for setting up a lithopone manufacturing plant?
  • Lithopone is a mixed zinc sulfide-barium sulfate brilliant white pigment that contains about 30% zinc sulfide. The original light sensitiveness of this pigment has been mitigated by purification and by the addition of such agents as polythionates and cobalt sulfate.

    Overall, titanium dioxide is a versatile chemical compound with numerous applications in various industries. Its unique properties, such as its high whiteness, brightness, and photocatalytic activity, make it an indispensable material in many different products and processes. As research continues to explore new uses for this remarkable compound, we can expect to see even more innovative applications in the future. * Employs a team of experienced professionals who are dedicated to providing exceptional customer service.

    To overcome this challenge, manufacturers use advanced technology and processes to monitor and control the buff percentage of their products. This may involve the use of sophisticated equipment to measure the coating thickness of titanium dioxide particles, as well as automated systems to adjust the level of coating as needed. By carefully controlling the buff percentage, manufacturers can ensure that their products meet the specifications of their customers and maintain a high level of quality and performance.


    In recent years, there has been a shift towards sustainable production methods, with companies investing in research and development to produce eco-friendly TiO2. This aligns with China's commitment to green development and its pursuit of carbon neutrality.

    The basic scenario of resistive switching in TiO2 (Jameson et al., 2007) assumes the formation and electromigration of oxygen vacancies between the electrodes (Baiatu et al., 1990), so that the distribution of concomitant n-type conductivity (Janotti et al., 2010) across the volume can eventually be controlled by an external electric bias, as schematically shown in Figure 1B. Direct observations with transmission electron microscopy (TEM) revealed more complex electroforming processes in TiO2 thin films. In one of the studies, a continuous Pt filament between the electrodes was observed in a planar Pt/TiO2/Pt memristor (Jang et al., 2016). As illustrated in Figure 1C, the corresponding switching mechanism was suggested as the formation of a conductive nanofilament with a high concentration of ionized oxygen vacancies and correspondingly reduced Ti3+ ions. These ions induce detachment and migration of Pt atoms from the electrode via strong metal–support interactions (Tauster, 1987). Another TEM investigation of a conductive TiO2 nanofilament revealed it to be a Magnéli phase TinO2n−1 (Kwon et al., 2010). Supposedly, its formation results from an increase in the concentrations of oxygen vacancies within a local nanoregion above their thermodynamically stable limit. This scenario is schematically shown in Figure 1D. Other hypothesized point defect mechanisms involve a contribution of cation and anion interstitials, although their behavior has been studied more in tantalum oxide (Wedig et al., 2015; Kumar et al., 2016). The plausible origins and mechanisms of memristive switching have been comprehensively reviewed in topical publications devoted to metal oxide memristors (Yang et al., 2008; Waser et al., 2009; Ielmini, 2016) as well as TiO2 (Jeong et al., 2011; Szot et al., 2011; Acharyya et al., 2014). The resistive switching mechanisms in memristive materials are regularly revisited and updated in the themed review publications (Sun et al., 2019; Wang et al., 2020).