N-(2-phenanthryl)acetamide
- Molecular formula
- C16H13NO
- CAS Number
- 613-93-4
- IUPAC Name
- N-(2-phenanthryl)acetamide
- Molecular Weight
- 223.28g/mol
- Melting Point
- (Celsius)
- Boiling Point
- (Celsius)
- Density
- 1.2740g/cm3
- Synonyms
- 2-Acetamidophenanthrene
Identification
Interesting Facts about N-(2-phenanthryl)acetamide
N-(2-phenanthryl)acetamide is a fascinating organic compound that belongs to a class known as amides. It is rich in potential applications and interesting characteristics that make it a subject of study in various fields of chemistry. Here are some notable insights about this compound:
- Structural Significance: The structure of N-(2-phenanthryl)acetamide features both an acetamide group and a phenanthryl moiety. This combination enriches its chemical behavior and enhances its interactions in organic reactions.
- Biological Activity: Compounds containing the phenanthryl group are often explored in pharmaceuticals for their interesting biological properties. N-(2-phenanthryl)acetamide has shown potential in various studies as a compound that might exhibit antimicrobial or antitumor activities, making it valuable in medicinal chemistry.
- Synthetic Utility: The synthesis of N-(2-phenanthryl)acetamide can serve as a model reaction in organic chemistry. It often involves straightforward amide formation techniques that are pivotal for students learning about reaction mechanisms.
- Intermolecular Interactions: The presence of both aromatic systems and amide functionalities can lead to significant hydrogen bonding interactions, which are critical in biological systems and materials science.
- Research Potential: Ongoing research may uncover new derivatives of this compound that can lead to advancements in diverse fields such as material sciences, drug development, and organic synthesis.
In conclusion, N-(2-phenanthryl)acetamide is more than just a simple compound; it represents a bridge between theoretical chemistry and practical applications, offering exciting avenues for future exploration and discovery. As you delve deeper into its properties, you'll find that even small changes to its structure can lead to significantly different behaviors and applications.