Nano cesium tungsten bronze, with chemical formula of Cs0.33WO3, may be applied for preparing a new type of transparent thermal insulation material such as transparent heat insulation coatings. And the obtained coating may be applied to architectural glass to form a layer of thermal insulation film for high thermal insulation property. In recent years, thermal insulation films using nano cesium tungsten bronze particles as a near-infrared absorbing agent are being gradually applied to more places requiring high heat insulation property and high transparency.

Nano Cs0.33WO3, or cesium tungsten bronze nano powder, may be used to prepare a new transparent heat insulation coating. As you may have known, there are many types of transparent heat-insulating coatings on the market. And there are mostly tin antimony oxide (ATO), indium tin oxide (ITO), and zinc aluminum oxide (ZAO), etc. However, these functional materials are expensive. And their resources are scarce. And therefore the prices of theses coatings are higher.

Nano Cs0.33WO3, nano grain size cesium tungsten bronze, may be applied to prepare a type of transparent thermal insulation coating. And the nano cesium tungsten bronze can be produced by hydrothermal synthesis using Na2WO4•2H2O and Cs2CO3 as raw materials, and citric acid as an inducer.

Nano Cs0.33WO3, cesium tungsten bronze nanoparticles, may be applied for producing near-infrared shielding material, such as, heat-insulating film, and therefore be used in building glass. According to experts, the nano particle size cesium tungsten bronze raw material is a nano material that has many special properties, such as, surface and interface effects, quantum size effects, small size effects, macroscopic quantum tunneling effects, and the like. The reason why nano cesium tungsten bronze has these properties is that it has special structure.

Nano Cs0.33WO3, or nano grain size cesium tungsten bronze, may be applied for preparing a transparent thermal insulation paper. In fact, the obtained thin paper can be said to be an environmentally friendly heat-insulating film, which is more and more widely used in building glass. According to experts, they prepared the raw material cesium tungsten bronze nano particles by high-temperature solid-phase reaction method, and studied its transmission spectrum.

Cs doped tungsten oxide nanopowder may be applied for producing thermal insulation dispersion liquid, and thus be used to produce a nano transparent thermal insulation coating. As we all know, at present, a kind of transparent heat insulating coating with excellent performance, feasible preparation method, simple process, relatively low cost, and convenient construction is in line with the needs of society as we are in such a situation:

Cs doped tungsten oxide nanopowder, or cesium tungsten bronze nanoparticles, may be applied for producing near infrared shielding material such as transparent heat insulating coating. Such coating can meet the lighting requirements of the building. More importantly, it can block the heat from the outside in real life.

Cs doped tungsten oxide nanopowder may be applied for preparing infrared thermal insulation nano material such as a new transparent thermal insulation coating. And the prepared coating has the characteristics of uniform dispersibility, good stability and excellent near-infrared performance. So, how is it that a coating has made into a film?

Cs doped tungsten oxide nanopowder may be applied for preparing infrared ultraviolet shielding material such as a transparent heat insulating coating. According to experts, in the process of preparing cesium doped tungsten oxide transparent heat insulating coating, it is necessary to control the size and existence of the nanoparticles. Experts also said that such environmentally friendly thermal insulation coating can be obtained by blending method.

Cs doped tungsten oxide nanopowder may be applied for producing transparent thermal insulation material such as transparent nano coating. As you may have known, if the slurry is dispersed under high-speed agitation, the smaller the size of the nanoparticles, the higher the surface energy, and the more likely they are to agglomerate each other.