MOFs材料通过有机配体与金属原子相互连接，形成稳定的，多空的，具有超

MOFs材料通过有机配体与金属原子相互连接，形成稳定的，多空的，具有超强的性能，也有较强的研究意义。文章对MOFs材料做了简单的说明，近年来对MOFs材料研究成果发展较为迅速，高的孔隙率和好的化学稳定性,使MOFs材料有了更广泛的应用前景。根据有机材料的组成单元不同、除去骨架中的溶剂分子而不引起骨架的坍塌将MOFs材料进行不同分类。MOFs常见的合成方法有：
常规溶液法、扩散法、水热或溶剂热法、微波法、离子热合成法、共结晶法、单晶到单晶的转化等。MOFs在实际生活中也有较广泛的应用，如气体储存、光学应用、分子磁体、分子催化等。

結果 (英文) 1:

MOFs materials with metal atom connected through organic ligands to form stable, more empty, with superior performance, also has a strong significance. MOFs make a brief description of the article, the MOFs material research results developed very fast in recent years, high porosity and excellent chemical stability, makes MOFs material has broader application. According to the organic materials of the unit different, removal of solvent molecules in the framework without causing the skeleton-filled collapse MOFs with different classifications. MOFs common methods of synthesis are:General solution method, diffusion, hydrothermal or solvent thermal process, microwave, ion heat total synthesis, crystallization, Crystal to Crystal transformation. MOFs in real life, there is a wide range of applications, such as gas storage, optics, molecular catalysis, molecular magnets.

結果 (英文) 3:

MOFs by organic ligands and metal atoms are connected to each other to form a stable, porous, with superior performance, also has strong research significance. This paper makes a simple description of the development of MOFs materials, MOFs materials research results more rapidly in recent years, chemical stability and high porosity, the MOFs materials have a wide application prospect. According to the composition of different materials, unit of organic solvent removal in the molecular skeleton without causing the collapse of framework MOFs material classifying. There is a common method for synthesis of MOFs:The conventional solution method, diffusion method, hydrothermal or solvothermal method, microwave method, ion hydrothermal synthesis, CO crystals method, crystal to crystal transformation etc.. MOFs is also widely used in real life, such as gas storage, optical applications, molecular magnets, molecular catalysis etc..