2-Methyl-1,4,5,6-tetrahydroimidazo[4,5-D][1]benzazepine

Catsyn offer gram to tons of 2-Methyl-1,4,5,6-tetrahydroimidazo[4,5-D][1]benzazepine | CAS 318237-73-9, its formula is C12H13N3, molecular weight is 199.25g/mol and the purity is usually NLT 98%.

This substance (CAS No.: 318237-73-9) typically possesses a specific organic molecular structure, potentially containing aromatic rings, heteroatoms, or functional groups. Its molecule may contain conjugated systems, enhancing molecular stability through π-electron delocalization. Simultaneously, electronic effects (such as electron-withdrawing or electron-donating groups) can modulate the molecular frontier orbital energy levels (HOMO/LUMO), influencing its redox properties and photophysical behavior. Its physicochemical properties, including melting point, boiling point, and solubility, are influenced by intermolecular forces and crystal structure. The expansion of the conjugated system may reduce the band gap, enhancing fluorescence or phosphorescence emission efficiency. Regarding stability, intramolecular hydrogen bonds, steric hindrance, or aromatic structures can improve thermal stability and chemical inertness. In catalysis or coordination, heteroatoms containing lone pairs of electrons or empty orbitals (such as N, O, P, or transition metals) may exhibit coordination properties, forming stable complexes with metal ions or participating in reactions as catalytic active centers. This substance may play a core role as a functional material in the OLED field, such as serving as the main material for the light-emitting layer, a component of the electron transport layer, or a hole transport layer. Its conjugated system and energy level structure can optimize the balance between carrier injection and transport, improving device efficiency and lifetime. In the field of photoelectrocatalysis, its coordination properties or catalytic activity may be used to construct highly efficient catalysts to promote the separation of photogenerated carriers or specific chemical reactions (such as CO₂ reduction and water splitting). In materials science, its stability and modifiability make it a candidate material for preparing organic semiconductors, sensors, or functional coatings. Its performance can be controlled through molecular design to meet the performance requirements of industries such as flexible electronics, display technology, or energy storage, demonstrating significant application value and market potential.