China NiFe2O4 powder Manufacturers, Suppliers, Factory

​The use of silver-based materials for their strong antibacterial properties has long been recognized, but concerns about their potential toxicity have led to the need for alternative, safe, and effective antibacterial systems. Against this backdrop, a team of researchers has developed a novel synergistic antibacterial system using arginine-modified chitosan (ACS) composite silver-loaded MMT (AgNPs@MMT) for food preservation. This article explores this promising solution in detail.

​Type I and Type II materials are terms used to describe the crystal structure of metals and semiconductors, which is an essential part of their properties and applications. Type I materials have a body-centered cubic structure, while Type II materials have a face-centered cubic structure. So, how can we distinguish between Type I and Type II materials?

In the field of nanotechnology, three types of nanomaterials, namely single crystal, polycrystalline, and amorphous nanomaterials, are commonly used. These materials have different structures, properties, and applications in various fields. In this article, we will provide an overview of these three types of nanomaterials, their characteristics, and applications.

Let's use an example to illustrate how to dilute the nano silver dispersion: Assuming you have a sample containing a nano silver dispersion with a concentration of 100 mg/mL, you would like to dilute it to 10 mg/mL. You are preparing to use deionized water as a diluent solvent.

​In recent years, the field of thermal management materials has seen significant advancements. One such area of focus has been the modification of the surface properties of aluminum powders to improve their thermal performance. As a leader in the production of high-quality nano aluminum powders, SAT NANO has played a key role in these efforts. In this blog post, we will explore the methods and benefits of surface modification of aluminum powder.

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.