Heat Pumps
Hot Water Absorption Chiller produced by our company are mainly used in industrial and civil fields which can achieve energy saving and emission reduction. The main working principle of Gas Fired Absorption Chiller is that waste heat is used as driving energy, while the characteristic of water absorption of lithium bromide solution and the low boiling point of water in a vacuum state are utilized to achieve the purpose of refrigeration and heating.
Our company is committed to looking for strong distributors of LiBr Absorption Chillers , we strictly controll the quality and price of Steam Absorption Chiller for distributors which ensures high quality and low price of products and achieves win-win benefits between both parties.Our company can provide customers with perfect product training including Open Type Cross Flow Cooling Tower, which can enable customers to quickly master the operation skills of Closed Type Water Saving Cooling Tower and improve the operation efficiency of products.
Our company's main products including Heat Pumps always adhere to the principle of good quality and low price, andAbsorption Heat Pump have been highly praised and trusted by customers.
We are a professional manufacturer of Cooling Towers . We have a rich product line including Cooling Towers and can provide customers with high-quality products and services.
Lithium Bromide Absorption Chiller Heat Pump,Gas Fired Absorption Heat Pump,Absorption Heat Pump Residential,The Gas Absorption Heat Pump EBARA REFRIGERATION EQUIPMENT & SYSTEMS (CHINA) CO., LTD. , https://www.ebara-hvac.com
(2) The particle shape of the powder. It depends on the milling method, such as the powder obtained by electrolysis, the particles are dendritic; the iron powder particles obtained by the reduction method are in the form of sponge sheets; the gas atomization method is basically a spherical powder. In addition, some powders are ovoid, disc-shaped, needle-shaped, onion-shaped, and the like. The shape of the powder particles affects the fluidity and bulk density of the powder. Due to the mechanical meshing between the particles, the strength of the green compact of the irregular powder is also large, and in particular, the dendritic powder has the highest strength of the compact. When it is as small as a few hundred nanometers, the storage and transport of the powder is not easy, and when it is small to a certain extent, the quantum effect begins to function, and its physical properties will change greatly, such as ferromagnetic powder will become superparamagnetic Powder, the melting point also decreases as the particle size decreases. However, for porous materials, it is best to use spherical powder.
Mechanical properties The mechanical properties of the powder, ie the process properties of the powder, are important process parameters in the powder metallurgy forming process. The bulk density of the powder is the basis for volumetric weighing during pressing; the fluidity of the powder determines the filling speed of the powder and the productivity of the press; the compressibility of the powder determines the ease of pressing and the application of pressure. High and low; and the formability of the powder determines the strength of the blank.
The chemical properties mainly depend on the chemical purity of the raw materials and the milling method. Higher oxygen content will reduce the pressing properties, the strength of the compact and the mechanical properties of the sintered product, so there are certain provisions in most technical conditions of powder metallurgy. For example, the powder may have an oxygen content of 0.2% to 1.5%, which corresponds to an oxide content of 1% to 10%.
The most basic powder metallurgy geometry is the particle size and shape of the powder.
(1) Particle size. It affects the processing of the powder, the shrinkage during sintering, and the final properties of the product. The performance of some powder metallurgy products is almost directly related to the particle size. For example, the filtration accuracy of the filter material can be empirically determined by dividing the average particle size of the original powder particles by 10; the properties of the cemented carbide product are very similar to those of the wc phase. In the big relationship, it is only possible to obtain a fine-grained cemented carbide with a finer-grained wc raw material. Powders used in production practice range in size from a few hundred nanometers to hundreds of microns. The smaller the particle size, the greater the activity and the easier the surface will oxidize and absorb water.