Inquiry
Form loading...

China Suppliers of MIL-100(Cr) Powder Metal Organic Frameworks (MOFs) - Quality Factory Products for Gas Separation and Catalysis

acvbn

MIL-100(Cr) is a versatile compound featuring the chemical formula C18H10Cr3FO15. This remarkable material is renowned for its unique structural properties, making it an essential choice for applications in gas separation and catalysis. As one of the leading suppliers in China, our factory focuses on delivering high-quality MIL-100(Cr) to meet the diverse needs of various industries. Experience the benefits of this innovative compound by choosing a trusted supplier for your production needs in China

    Product Specification Details
    Product Name MIL-100(Cr)
    Particle size 0.05~0.1 μm
    Specific surface area ≥1200 ㎡/g
    Pore size 0.8~2.7 nm

    MIL-100(Cr), a green powder form of Metal Organic Frameworks (MOFs) with the chemical formula C18H10Cr3FO15, is celebrated for its distinctive structural attributes and a wide array of applications, notably in the realms of gas separation and catalysis. This MOF is distinguished by its exceptional mechanical robustness, which surpasses that of its counterparts like MIL-101(Cr). The enhanced linker connectivity in MIL-100(Cr) augments the interplay between metal nodes, thereby postponing structural degradation under stress.

    Key Performance Highlight

    This mechanical stability is a pivotal attribute for applications such as CO2 separation, where modified MIL-100(Cr) membranes have displayed remarkable CO2 permeance and selectivity. These membranes have achieved impressive figures of 4638 GPU in CO2 permeance and a ratio of 35 in CO2/N2 separation, marking a significant advancement in the field of gas capture and purification.

    Beyond gas separation, MIL-100(Cr) has also garnered interest in catalysis. It has been particularly examined in the selective hydrogenation of nitrobenzene, where it acts as a support for bimetallic catalysts. The synergistic effects between the catalysts and the MOF's structure amplify the catalytic activity, offering a promising avenue for catalytic processes.

    KAR-F48 MIL-100(Cr)

    The exploration of MIL-100(Cr) in these capacities underscores its versatility and underscores its potential in both environmental conservation and industrial processes. However, to fully harness its capabilities, ongoing research is essential to refine its performance across diverse applications.

    MIL-100(Cr) is characterized by a particle size of 50-100 nm, which, in conjunction with a specific surface area exceeding 1200 ㎡/g, provides a substantial surface for chemical interactions. The pore size ranging from 0.8 to 2.7 nm is another key feature that facilitates its utility in gas storage and separation processes.

    MIL-100(Cr) is a MOF of notable promise, with a robust structure and a broad spectrum of applications. Its ongoing development and optimization are set to cement its role as a key material in addressing contemporary environmental and industrial challenges.

    Frequently Asked Questions
    What is the chemical composition and appearance of MIL-100(Cr)?
    MIL-100(Cr) is a green powder form of Metal Organic Frameworks (MOFs) with the chemical formula C18H10Cr3FO15.
    What are the key physical specifications of MIL-100(Cr)?
    It features a particle size of 0.05~0.1 μm (50-100 nm), a specific surface area of ≥1200 ㎡/g, and a pore size ranging from 0.8 to 2.7 nm.
    Why does MIL-100(Cr) exhibit high mechanical robustness?
    The enhanced linker connectivity in MIL-100(Cr) strengthens the interplay between metal nodes, which delays structural degradation under stress and makes it more robust than counterparts like MIL-101(Cr).
    How effective is MIL-100(Cr) in CO2 separation applications?
    Modified MIL-100(Cr) membranes show exceptional performance, achieving a CO2 permeance of 4638 GPU and a selective separation ratio of 35 for CO2/N2.
    What role does MIL-100(Cr) play in catalytic processes?
    It is used as a support for bimetallic catalysts, particularly in the selective hydrogenation of nitrobenzene, where the synergistic effects between the catalysts and the MOF structure boost overall catalytic activity.