China Cu2O nanoparticle Manufacturers, Suppliers, Factory

Colloidal gold refers to a colloidal system formed by suspending nanoscale gold particles in an appropriate solution. The size of gold particles typically ranges from 1 to 100 nanometers.

SAT NANO is specialized in manufacturing top-quality Zinc Ferrite Nanopowder, and their production process is innovative. This revolutionary method, known as "pulsed laser ablation" is a green and environment-friendly technique that converts Zinc Ferrite Target into powder form using a high-energy laser. Compared to the traditional methods such as hydrothermal, co-precipitation, and microwave-assisted methods, the pulsed laser ablation method is faster, greener as it doesn't produce waste and the produced nanomaterial is pure with fewer defects.

During the transportation process of powder, it is necessary to avoid stacking, as stacking can affect the fluidity of the powder. Stacking can be avoided by installing slopes, increasing transportation pipelines, and other methods.

Neural microelectrodes are implanted devices that are crucial for the exchange of information between internal biological systems and external devices. However, their long-term reliability and functionality depend on various factors such as biocompatibility, mechanical stability, and electrochemical stability, among others. To enhance the performance of neural electrodes, a team of researchers has explored a new approach that involves the modification of the electrode interface with conductive polymer modified gold nanoparticles. In this article, we'll discuss how they were able to achieve this and its potential impact on the development of next-generation neural electrodes.

Copper oxide nanoparticles (CuO NPs) are tiny particles with extraordinary properties—high surface area, antimicrobial activity, and excellent thermal conductivity. If you're in electronics, healthcare, or energy storage, these nanoparticles might be the game-changer you’ve been overlooking.

The principle of thermochromism mainly adjusts the input of solar radiation (wavelength concentrated in 190-3000nm) energy and the output of blackbody energy through windows based on the ambient temperature. Thermochromic materials will change their transparency, absorbance, and color when the temperature changes. Thermochromic can be used as a passive design strategy to adjust near-infrared transmittance while maintaining visible light transmittance, without the need for external energy or manual operation. Therefore, thermochromic smart windows have become a hot research topic in building energy-saving windows due to their simple structure and broad application prospects.