• 1. Hydrothermal synthesis of perovskite CaTiO3 tetragonal microrods with vertical V-type holes along the [010] direction
  Tongzhou Chen,Liang Bao,Yiran Zheng,Xin Yang,Luoyuan Ruan,Yong Liu,Gang Xu,Gaorong Han CrystEngComm 2019 21 4763
• 2. Organohalide lead perovskites for photovoltaic applications
  Peng Gao,Michael Gr?tzel,Mohammad K. Nazeeruddin Energy Environ. Sci. 2014 7 2448
• 3. Self-assembled titanium calcium oxide nanopatterns as versatile reactive nanomasks for dry etching lithographic transfer with high selectivity
  Marco Faustini,Glenna L. Drisko,Alban A. Letailleur,Rafael Salas Montiel,Cédric Boissière,Andrea Cattoni,Anne Marie Haghiri-Gosnet,Gilles Lerondel,David Grosso Nanoscale 2013 5 984
• 4. Luminescent perovskites: recent advances in theory and experiments
  Zhen Song,Jing Zhao,Quanlin Liu Inorg. Chem. Front. 2019 6 2969
• 5. An overview on enhancing the stability of lead halide perovskite quantum dots and their applications in phosphor-converted LEDs
  Yi Wei,Ziyong Cheng,Jun Lin Chem. Soc. Rev. 2019 48 310

• Catalysts and Inorganic Chemicals Inorganic Compounds Mixed metal/non-metal compounds Alkaline earth metal organides Alkaline earth metal oxides
• Catalysts and Inorganic Chemicals Inorganic Compounds Salt
• Catalysts and Inorganic Chemicals Inorganic Compounds

Properties and Applications of Calcium Titanate (CAS No: 12049-50-2)

Calcium titanate, with the chemical formula CaTiO?, is a compound that has garnered significant attention in various scientific and industrial applications due to its unique physical and chemical properties. This inorganic material is classified as a perovskite-type oxide, which is known for its excellent thermal stability, high dielectric constant, and biocompatibility. The compound is primarily identified by its CAS number, 12049-50-2, which distinguishes it from other titanium-based oxides and ensures precise identification in chemical databases and research literature.

The synthesis of Calcium titanate typically involves the reaction of calcium sources such as calcium hydroxide or calcium carbonate with titanium precursors like titanium dioxide at elevated temperatures. The process can be further refined through sol-gel methods or hydrothermal synthesis to achieve specific particle sizes and morphologies. These synthetic pathways are critical in determining the final properties of the material, which can be tailored for various applications ranging from ceramics to electronic components.

One of the most notable characteristics of Calcium titanate is its high refractive index, which makes it an attractive material for optical applications. In recent years, researchers have been exploring its potential in advanced optical coatings and luminescent materials. For instance, studies have demonstrated that Calcium titanate nanoparticles can be effectively incorporated into polymer matrices to enhance light scattering and improve the efficiency of light-emitting diodes (LEDs). This application leverages the material's ability to maintain structural integrity at high temperatures while providing excellent optical transparency.

Additionally, Calcium titanate has shown promise in the field of biomedicine due to its biocompatibility and non-toxicity. Research has indicated that this compound can be used as a coating material for medical implants, such as hip and knee prosthetics, to improve osseointegration between the implant and the surrounding bone tissue. The perovskite structure of Calcium titanate allows for good bioactivity, enabling it to form a stable bond with biological tissues. Furthermore, its radio-opacity makes it suitable for imaging applications in medical diagnostics.

In the realm of energy storage, Calcium titanate has been investigated as a potential candidate for solid-state electrolytes in lithium-ion batteries. Its stable ionic conductivity at elevated temperatures and compatibility with lithium ions make it an appealing alternative to traditional electrolyte materials. Recent studies have reported that incorporating Calcium titanate into battery electrode formulations can significantly enhance cycle life and energy density. This development is particularly relevant in the context of renewable energy storage solutions, where efficient battery technology is crucial.

The environmental benefits of using Calcium titanate are also worth mentioning. As a ceramic material, it is highly durable and resistant to degradation under harsh conditions, reducing the need for frequent replacements. This durability translates to lower environmental impact over time compared to materials that require frequent disposal or recycling. Moreover, research into green synthesis methods for Calcium titanate has focused on minimizing energy consumption and reducing waste generation during production processes.

From an industrial perspective, Calcium titanate finds applications in catalysis, where its surface properties can be leveraged to enhance reaction rates in various chemical processes. Its ability to withstand high temperatures without losing structural integrity makes it an ideal catalyst support material. For example, studies have shown that Calcium titanate-based catalysts can improve the efficiency of hydrocarbon cracking processes in petrochemical refineries.

The electronic properties of Calcium titanate have also been extensively studied for use in next-generation electronic devices. Its wide bandgap and tunable band structure make it suitable for use in photodetectors, solar cells, and semiconductor devices. Researchers have been particularly interested in developing thin-film transistors (TFTs) using Calcium titanate due to its high charge carrier mobility and stability under operational conditions.

In conclusion, Calcium titanate (CAS No: 12049-50-2) is a versatile material with a wide range of applications across multiple industries. Its unique combination of physical and chemical properties has positioned it as a key component in advancements ranging from medical implants to energy storage solutions. As research continues to uncover new uses for this compound, its importance in modern technology is likely to grow even further.

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