Nucleophilic Activation of Red Phosphorus for Controlled Synthesis of Polyphosphides

Reactions between red phosphorus (Pred) and potassium ethoxide in various organic solvents under reflux convert this rather inert form of the element to soluble polyphosphides. The activation is hypothesized to proceed via a nucleophilic attack by ethoxide on the polymeric structure of Pred, leading...

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Veröffentlicht in:Inorganic chemistry 2020-04, Vol.59 (8), p.5483-5489
Hauptverfasser: Jo, Minyoung, Dragulescu-Andrasi, Alina, Miller, L. Zane, Pak, Chongin, Shatruk, Michael
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container_end_page 5489
container_issue 8
container_start_page 5483
container_title Inorganic chemistry
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creator Jo, Minyoung
Dragulescu-Andrasi, Alina
Miller, L. Zane
Pak, Chongin
Shatruk, Michael
description Reactions between red phosphorus (Pred) and potassium ethoxide in various organic solvents under reflux convert this rather inert form of the element to soluble polyphosphides. The activation is hypothesized to proceed via a nucleophilic attack by ethoxide on the polymeric structure of Pred, leading to disproportionation of the latter, as judged from observation of P­(OEt)3 in the reaction products. A range of solvents has been probed, revealing that different polyphosphide anions (P7 3–, P16 2–, P21 3–, and P5 –) can be stabilized depending on the combination of the boiling point and dielectric constant (polarity) of the solvent. The effectiveness of activation also depends on the nature of nucleophile, with the rate of reaction between Pred and KOR increasing in the order t-Bu < n-Hex < Et < Me, which is in agreement with the increasing order of nucleophilic strength. Thiolates and amides were also examined as potential activators, but the reaction with these nucleophiles were substantially slower; nonetheless, all reactions between Pred and NaSR yielded exclusively P16 2– as a soluble polyphosphide product.
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