Beryllium Hydroxynitroanilinophosphate trifluoride

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Identification

Molecular formula
Be[OH]2[C8H7N2O4P]2F3
CAS Number
.
IUPAC Name
beryllium;[hydroxy-[2-(2-nitroanilino)ethoxy]phosphoryl] hydrogen phosphate;trifluoride
Molecular Weight
311.03g/mol
Melting Point
(Celsius)
Boiling Point
(Celsius)
Density
2.0480g/cm3
Appearance
may vary slightly depending on purity and specific sample conditions.
Interesting facts

Insights into Beryllium Hydroxy [2-(2-Nitroanilino)ethoxy] Phosphoryl Hydrogen Phosphate Trifluoride

Beryllium is a fascinating element with significant implications in various fields, particularly in the realm of advanced materials and pharmaceuticals. The compound in question combines beryllium with a complex organic moiety, creating a unique hybrid compound. Here are some interesting facts about this compound:

  • Innovative Applications: Beryllium compounds are important in the production of aerospace components due to their high strength-to-weight ratio. This specific compound, with its organic and inorganic components, may have potential uses in targeted drug delivery systems, leveraging the properties of beryllium for medicinal purposes.
  • Environment and Safety: While beryllium is useful, it is also toxic. Understanding its interactions with organic compounds is critical in ensuring safe handling and minimizing exposure risks.
  • Synergistic Properties: The presence of the nitroaniline group could contribute to interesting reactivity and bonding characteristics, influencing the overall behavior of beryllium in chemical reactions and possibly enhancing efficacy in certain applications.
  • Analytical Chemistry: Beryllium compounds often require sophisticated analytical techniques for characterization. Techniques such as NMR, mass spectrometry, and X-ray crystallography may be employed to unveil the structural intricacies of such hybrid compounds.

The combination of beryllium with a phosphoryl moiety adds another layer of complexity. Phosphoryl groups are known for their role in biochemistry, particularly in energy-transfer processes, which may render this compound attractive for research in biochemical applications. As we probe further, the exploration of its interactions with biological systems could lead to exciting discoveries.

In conclusion, the study of beryllium compounds like this one presents both challenges and opportunities. As quoted by famous chemist Linus Pauling, “The best way to have a good idea is to have a lot of ideas.” Thus, the promise of such compounds inspires continued research and creative thinking in the field of chemistry.

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