China multi layer graphene powder Manufacturers, Suppliers, Factory

​As technology advances, scientists have discovered the use of precious metal nanoparticles in electronic devices, healthcare products, and other high-tech applications. One particular precious metal nanoparticle that has gained immense popularity is platinum. In this blog post, we will take a deep dive into platinum nanoparticles, their properties, and their applications.

Everyone knows about the mineral manganese, which is an important nutrient for the human body. But what many people might not know is that manganese can do a lot more than just keep us healthy. Scientists have discovered that when manganese is processed into a fine powder called nanomanganese or nanoscale manganese dioxide powder, it can have immense potential for various applications in different fields. In this blog post, we will explore the revolutionary nanotechnology and applications of manganese dioxide powder.

Nano-aluminum oxide is a widely used material, especially in the field of nanotechnology, due to its unique physicochemical properties such as high surface area, high thermal stability, and excellent catalytic activity. However, the surface properties of nano-aluminum oxide play an important role in its performance in many applications. Therefore, surface modification of nano-aluminum oxide is essential to improve its properties for specific applications. In this article, we discuss one of the effective surface modification methods of nano-aluminum oxide, which involves using a silane coupling agent (KH-560).

​The use of nanotechnology has revolutionized the world. One such remarkable feat is the reduction of particle size of Titanium Dioxide powder to nanometers. Nanometer-sized particles of Titanium Dioxide are called Nano Titanium Dioxide Powder. Nano Titanium Dioxide Powder is becoming increasingly popular because of its unique properties and its applications in various fields.

The crystal structure of nano iron oxide is hexagonal, and the lattice parameters change with the decrease of particle size. When the particle size is large (usually larger than tens of nanometers), iron oxide exhibits a typical α- The Fe2O3 structure, also known as hematite structure, is red in color. This is because typical α- The Fe2O3 structure has a high reflectivity for visible light, absorbing shorter wavelengths (blue-green) in visible light, leaving only longer red wavelengths observed.

In the future, with the upgrading of green manufacturing and the demand for functional glass, the application of magnesium oxide will develop towards refinement: on the one hand, the mechanical and optical properties of glass will be further improved by doping with nano MgO (particle size<50 nm); On the other hand, by combining AI driven component design, a new MgO based glass system (such as MgO Li ₂ O-ZrO ₂ low melting point glass) can be developed to adapt to flexible electronics and hydrogen energy storage and transportation applications. The value of magnesium oxide in glass composition is shifting from a "performance regulator" to a "functional enabler", driving the evolution of glass materials towards higher performance and wider scenarios.