N,N'-Di(pyrid-4-yl)-perylentetracarbonic Acid, Diamide: A Key MOF Precursor
Unlock advanced material properties with our high-purity perylene-based diamide, essential for MOF synthesis.
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N,N'-Di(pyrid-4-yl)-perylentetracarbonic Acid, Diamide
This specialized chemical compound, known for its high purity, serves as a critical building block in the field of advanced materials, particularly for the synthesis of Metal-Organic Frameworks (MOFs). Its unique structure, featuring perylene tetracarboxylic acid backbone functionalized with pyridine groups, makes it an excellent choice for creating complex porous structures with tailored properties.
- N,N'-Di(pyrid-4-yl)-perylentetracarbonic Acid Diamide MOF synthesis: Facilitates the creation of novel MOF structures with high efficiency.
- Organic chemistry MOF building blocks: Essential component for researchers and manufacturers developing next-generation porous materials.
- CAS 136847-29-5 metal organic frameworks: A precisely identified chemical intermediate crucial for reproducible MOF fabrication.
- N,N'-Di(pyrid-4-yl)-perylentetracarbonic Acid Diamide solubility DMF DMSO: Demonstrates good solubility in common organic solvents like DMF and DMSO, enabling versatile reaction conditions.
Product Advantages
High Purity and Reliability
Ensures consistent results in your N,N'-Di(pyrid-4-yl)-perylentetracarbonic Acid Diamide MOF synthesis, with a guaranteed purity of 97% min.
Versatile Solubility
Offers excellent N,N'-Di(pyrid-4-yl)-perylentetracarbonic Acid Diamide solubility DMF DMSO, allowing for flexible integration into various synthetic pathways.
Structural Versatility
The pyridine functionalization makes it a valuable component for designing MOFs with specific catalytic or adsorption properties, highlighting its role as one of the key organic chemistry MOF building blocks.
Key Applications
Metal-Organic Frameworks (MOF) Construction
Serves as a primary ligand for constructing diverse MOF architectures, crucial for applications in gas storage, catalysis, and separation.
Advanced Organic Synthesis
Utilized as a specialty intermediate in complex organic synthesis projects requiring specialized perylene-based structures.
Materials Science Research
A key compound for researchers exploring new functional materials and understanding structure-property relationships in porous systems.
Catalysis Development
Its pyridine groups can coordinate with metal centers, potentially enhancing catalytic activity in MOF-based catalytic systems.