Inquiry
Form loading...

China UiO-66 Powder Metal Organic Frameworks (MOFs) - Leading Suppliers and Factory for Advanced Applications

acvbn

Discover UiO-66, a cutting-edge crystalline material featuring metal nodes made from a sophisticated zirconium oxide complex, interconnected by terephthalic acid ligands. Originally synthesized at the University of Oslo by Lillerud’s research team, UiO-66 has become a prominent choice among suppliers in China for various applications, including catalysis, photocatalysis, adsorption separation, sensors, and biomedicine. As a trusted factory for high-quality materials, we ensure that our UiO-66 meets the stringent standards required for innovative industrial solutions. Explore the potential of UiO-66 and elevate your projects with one of the most versatile materials available on the market today

    Product Name UiO-66
    Particle size 100~200 nm
    Specific surface area ≥1000 ㎡/g
    Pore size 0.35~1.5 nm

    Structure Overview: This crystal is a face-centered-cubic structure containing an fm-3m symmetry with a lattice parameter of 20.7 Å. It contains two separate cages, a tetrahedron cage of 7.5 Å, another an octahedron cage of 12 Å, and a pore aperture of 6 Å.

    The theoretical pore volume of UiO-66 is 0.77 cm3/g, and the surface area is 1160 m2/g. UiO-66 is of the fcu topology. The use of this system for MOFs includes defining the inorganic node as a secondary building unit (SBU) and classifying the zirconium oxide node in UiO-66 as cuboctaherdral, allowing up to 12 points of extension for BDC struts to coordinate.

    Half of the eight oxygen atoms in the hydroxylated version of this SBU are bound to three zirconium atoms as individual atoms, and the remaining oxygen atoms are bound to three zirconium atoms in hydroxide form. UiO-66 is known for its high stability and coordination. The highly tunable nature of this exceedingly stable MOF allows strategies such as doping and postsynthetic modifications to add functionalities for their specific applications. It is anticipated that this research will continue to advance into many different fields as there have been many exciting prospects for the application of UiO-66 in areas such as catalysis, photocatalysis, adsorption separation, sensors, and even in biomedicine.

    KAR-F30 UiO-66

    Frequently Asked Questions (FAQ)

    What is the particle size and surface area of UiO-66?
    UiO-66 features a particle size of 100~200 nm, a specific surface area of ≥1000 ㎡/g (with a theoretical surface area of 1160 m2/g), and a theoretical pore volume of 0.77 cm3/g.
    What is the crystal structure of UiO-66?
    UiO-66 has a face-centered-cubic structure containing an fm-3m symmetry with a lattice parameter of 20.7 Å. It contains a 7.5 Å tetrahedron cage, a 12 Å octahedron cage, and a pore aperture of 6 Å.
    Why is UiO-66 highly stable?
    Its high stability is attributed to its coordination structure, where the zirconium oxide node acts as a cuboctahedral secondary building unit (SBU) allowing up to 12 points of extension for BDC struts to coordinate.
    Can UiO-66 be modified for specific applications?
    Yes, the highly tunable nature of this stable MOF allows strategies such as doping and postsynthetic modifications to add functionalities tailored for specific applications.
    What are the primary application areas for UiO-66?
    UiO-66 shows exciting application prospects in fields such as catalysis, photocatalysis, adsorption separation, sensors, and biomedicine.