PI13669 Di-p-chlorobenzylazodicarboxylate(DCAD) (CAS No.: 916320-82-6)

Di-p-chlorobenzylazodicarboxylate(DCAD) Description

Di-p-chlorobenzylazodicarboxylate(DCAD) is utilised in organic synthesis for mediating diazo-transfer and azo coupling reactions. Its molecular structure, represented by C16H12Cl2N2O4, exhibits controlled reactivity that aids in the formation of azo compounds. The material's specified purity and physical characteristics ensure its effective incorporation in various synthetic methodologies where precise stoichiometry and reaction control are crucial.

Di-p-chlorobenzylazodicarboxylate(DCAD) Characteristics

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Di-p-chlorobenzylazodicarboxylate(DCAD) Applications

Organic Synthesis
- Used as a diazo-transfer agent in various coupling reactions to achieve efficient formation of azo compounds by leveraging its stable azodicarboxylate functionality.
- Applied as a key intermediate in multi-step syntheses to facilitate targeted functional group transformations while minimising side reactions.

Pharmaceutical Intermediates
- Employed as a reagent in the synthesis of complex organic molecules, where its consistent reactivity ensures controlled conversion processes, thus improving overall yield and purity.
- Serves in preparative methods for active pharmaceutical ingredients by enabling precise diazotisation steps.

Di-p-chlorobenzylazodicarboxylate(DCAD) Packing

Di-p-chlorobenzylazodicarboxylate(DCAD) is packaged in airtight, moisture-proof containers with an inner plastic liner and secondary sealed carton for extra protection. Desiccants are included to prevent moisture uptake, and the packaging is designed to minimise contamination and physical damage. Custom packaging options with detailed labelling and safety instructions are available to meet specific storage requirements.

Additional Information

Organic azodicarboxylates, such as DCAD, play an important role in modern synthetic chemistry by enabling controlled diazo-transfer reactions. Their precise molecular characteristics facilitate predictable reaction pathways, which are critical in producing high-purity intermediates for various chemical synthesis processes.

In addition, the properties of reagents like DCAD are studied extensively in both academic and industrial settings. These studies help in understanding reaction mechanisms and optimising synthesis conditions, thereby contributing to advancements in pharmaceuticals, materials science, and fine chemical manufacturing.