Triethylphenylanilinoethylammonium

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Identification

Molecular formula
C20H28N
CAS Number
3253-01-2
IUPAC Name
triethyl-[2-(N-phenylanilino)ethyl]ammonium
Molecular Weight
312.49g/mol
Melting Point
(Celsius)
Boiling Point
(Celsius)
Density
1.0500g/cm3
Interesting facts

Interesting Facts about Triethyl-[2-(N-phenylanilino)ethyl]ammonium

Triethyl-[2-(N-phenylanilino)ethyl]ammonium is a fascinating compound that showcases the intricate nature of organic chemistry. Here are some engaging insights about this unique ammonium derivative:

  • Structural Complexity: This compound features a complex molecular structure that includes both aromatic and aliphatic components, resulting in unique electronic and steric properties that can influence its reactivity and interaction with other molecules.
  • Quaternary Ammonium Ion: Triethyl-[2-(N-phenylanilino)ethyl]ammonium is classified as a quaternary ammonium salt. These types of compounds are known for their quaternary structure, which involves positively charged nitrogen atoms bound to four organic groups. This property often leads to interesting solubility profiles and antimicrobial activities.
  • Applications in Chemistry: Compounds like triethyl-[2-(N-phenylanilino)ethyl]ammonium are often used as phase transfer catalysts in organic synthesis. They can facilitate the transfer of ions between different phases, which assists in various chemical reactions.
  • Biological Importance: Quaternary ammonium compounds, including triethyl-[2-(N-phenylanilino)ethyl]ammonium, can exhibit significant biological activity. Some have been studied for their potential applications as antimicrobial agents, surfactants, and in drug delivery systems.
  • Research Interest: The compound's structural characteristics prompt ongoing research into its interaction with biological molecules. Such studies are crucial for advancing drug discovery and development in medicinal chemistry.

In summary, triethyl-[2-(N-phenylanilino)ethyl]ammonium is a prime example of how the modifications in organic structures can lead to diverse applications in chemistry and biology. As scientists explore the intricate details and functionalities of such compounds, they continue to contribute to our understanding of chemical behavior and its applications in real-world scenarios.

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