Oxidation and Reduction

Banerji, Kalyan K.

doi:10.1002/9781118941829.ch3

Cited by 1 publication

(1 citation statement)

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“…The silver(I) cation behaves as an excellent oxidation reagent in synthetic chemistry . The reaction of a heterotetrametallic Re–Zn–Zn–Re complex with AgOTf resulted in the cleavage of a Zn–Zn bond to eventually produce the triflate-bridged Zn(II) complex .…”

Section: Results and Discussionmentioning

confidence: 99%

Synthesis and Reactivity of Triangular Heterometallic Complexes Containing Zn–Zn Bond

et al. 2022

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This work provides a facile access to a series of triangular [Zn2M] (M = group 10 and 11 metals) clusters. Treatment of Zn–Zn-bonded compounds [LZn–ZnL] (L = CH3C(2,6- i Pr2C6H3N)CHC(CH3)(NCH2CH2PR2); R = Ph, i Pr) with zero-valent transition-metal reagents selectively afforded the corresponding triangular clusters [Zn2M], where M = Ni(0), Pd(0), and Pt(0). Notably, the isoelectronic triangular clusters [Zn2M]+, where M = Ag(I) and Cu(I), could also be obtained by reactions of [LZn–ZnL] with AgOTf and CuOTf, respectively. The [Zn2Ag]+ complex containing elusive Zn–Ag bonds was investigated by density functional theory analysis, showing a 3c–2e bonding feature in the metallic ring. The electrochemical behaviors of [Zn2M] complexes were examined and revealed the donation of electron density from the Zn–Zn σ-bond to the metal centers. Reaction of the [Zn2Ni] complex with isocyanide gave heterometallic species by coordination of isocyanide to the nickel center, keeping the trimetallic ring core structure intact. In contrast, the Zn–Zn bond was rapidly cleaved upon treatment of the [Zn2Ni] complex with dihydrogen or phenyl acetylene, generating the hydride- or acetylide-bridged heterotrimetallic complex.

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Section: Results and Discussionmentioning

confidence: 99%