Chemistry of metal and non-metal fluorides in liquid ammonia is often severely hampered, due to the low solubility of inorganic fluorides. This can be overcome by applying either strongly oxidizing fluorides, appropriate fluoride ion acceptors, or by the reduction or conversion of fluorides using solvated electrons. The article summarizes the state-of-the-art of the chemistry of inorganic fluorides in liquid ammonia, with special emphasis on compounds of beryllium, silver and uranium.
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- Masthead
- Review
- Rates of protonation of thiolate and sulfide ligands in mononuclear complexes and Fe-S-based clusters: implications for metalloenzymes
- Fluorine chemistry meets liquid ammonia
- Metal-oxo-mediated O-O bond formation reactions in chemistry and biology
- Diiron complexes on macrocyclic porphyrin-like platform as oxidation catalysts: reactivity and mechanistic considerations
Artikel in diesem Heft
- Masthead
- Masthead
- Review
- Rates of protonation of thiolate and sulfide ligands in mononuclear complexes and Fe-S-based clusters: implications for metalloenzymes
- Fluorine chemistry meets liquid ammonia
- Metal-oxo-mediated O-O bond formation reactions in chemistry and biology
- Diiron complexes on macrocyclic porphyrin-like platform as oxidation catalysts: reactivity and mechanistic considerations