Tetrakis(4-tetrazolylphenyl)ethylene: A Key Component for Advanced MOF Designs
The burgeoning field of Metal-Organic Frameworks (MOFs) continues to push the boundaries of material science, offering unprecedented control over porous structures and their associated functionalities. The performance of any MOF is intrinsically linked to the organic linker molecule used in its construction, and Tetrakis(4-tetrazolylphenyl)ethylene (CAS: 1818888-42-4) has emerged as a highly effective component for advanced MOF designs.
Tetrakis(4-tetrazolylphenyl)ethylene, characterized by its robust structure featuring a central ethene bridge connecting four phenyl rings, each substituted with a tetrazole group, provides a unique set of advantages for MOF synthesis. The tetrazole units are known for their strong coordination capabilities with a wide range of metal ions, allowing for the formation of stable, three-dimensional networks. This structural rigidity and high connectivity are crucial for creating MOFs with intrinsic porosity and mechanical stability.
Researchers specifically seek out this compound for its ability to facilitate the creation of MOFs with precise pore geometries, which are essential for targeted applications such as selective gas adsorption, chiral separations, and heterogeneous catalysis. The specific arrangement of the tetrazole moieties around the central core influences the overall topology and pore characteristics of the resulting MOF. As a result, Tetrakis(4-tetrazolylphenyl)ethylene is a key ingredient for synthesizing sophisticated MOFs like FJU-44 and ZZU-281, which have shown promise in environmental applications.
For scientists and engineers looking to develop next-generation materials, the ability to buy Tetrakis(4-tetrazolylphenyl)ethylene from a reliable source is critical. We pride ourselves on being a leading manufacturer in China, committed to supplying this advanced organic building block with high purity and consistent quality. This ensures that your experimental results are reproducible and that your material designs can be realized effectively. Our aim is to support your innovation by providing the essential chemical components needed for groundbreaking research.
The versatility of Tetrakis(4-tetrazolylphenyl)ethylene means it can be employed in various synthesis strategies, from solvothermal methods to electrochemical synthesis. When you require high-performance MOF linkers, consider the structural advantages offered by this tetrazolylphenyl ethylene derivative. We offer competitive pricing and efficient delivery, making it easier for researchers worldwide to access this vital compound for their advanced MOF designs.
Tetrakis(4-tetrazolylphenyl)ethylene, characterized by its robust structure featuring a central ethene bridge connecting four phenyl rings, each substituted with a tetrazole group, provides a unique set of advantages for MOF synthesis. The tetrazole units are known for their strong coordination capabilities with a wide range of metal ions, allowing for the formation of stable, three-dimensional networks. This structural rigidity and high connectivity are crucial for creating MOFs with intrinsic porosity and mechanical stability.
Researchers specifically seek out this compound for its ability to facilitate the creation of MOFs with precise pore geometries, which are essential for targeted applications such as selective gas adsorption, chiral separations, and heterogeneous catalysis. The specific arrangement of the tetrazole moieties around the central core influences the overall topology and pore characteristics of the resulting MOF. As a result, Tetrakis(4-tetrazolylphenyl)ethylene is a key ingredient for synthesizing sophisticated MOFs like FJU-44 and ZZU-281, which have shown promise in environmental applications.
For scientists and engineers looking to develop next-generation materials, the ability to buy Tetrakis(4-tetrazolylphenyl)ethylene from a reliable source is critical. We pride ourselves on being a leading manufacturer in China, committed to supplying this advanced organic building block with high purity and consistent quality. This ensures that your experimental results are reproducible and that your material designs can be realized effectively. Our aim is to support your innovation by providing the essential chemical components needed for groundbreaking research.
The versatility of Tetrakis(4-tetrazolylphenyl)ethylene means it can be employed in various synthesis strategies, from solvothermal methods to electrochemical synthesis. When you require high-performance MOF linkers, consider the structural advantages offered by this tetrazolylphenyl ethylene derivative. We offer competitive pricing and efficient delivery, making it easier for researchers worldwide to access this vital compound for their advanced MOF designs.
Perspectives & Insights
Silicon Analyst 88
“Tetrakis(4-tetrazolylphenyl)ethylene, characterized by its robust structure featuring a central ethene bridge connecting four phenyl rings, each substituted with a tetrazole group, provides a unique set of advantages for MOF synthesis.”
Quantum Seeker Pro
“The tetrazole units are known for their strong coordination capabilities with a wide range of metal ions, allowing for the formation of stable, three-dimensional networks.”
Bio Reader 7
“This structural rigidity and high connectivity are crucial for creating MOFs with intrinsic porosity and mechanical stability.”