Redox-active inverse crowns - pockets for heavier chalcogenides
    Maurer J, Klerner L, Langer J, Harder S  (2025)
    
    
    Publication Type: Journal article
    Publication year: 2025
Journal
    
    
    
    
    Book Volume: 54
    
    Pages Range: 13950-13957
    
    
    
    
    Journal Issue: 37
    
    DOI: 10.1039/d5dt01896j
    
    Abstract
    The reactivity of the redox-active metal crown complex (BDI*)MgNa3N′′2 (VI), formally containing a Mg0 centre, with phosphine chalcogenides, R3P 00000000 00000000 00000000 00000000 11111111 00000000 11111111 00000000 00000000 00000000 Ch (Ch = O, S, Se, Te; R = Me, Et) was investigated (BDI* = HC[tBuC N(DIPeP)]2 with DIPeP = 2,6-Et2CH-phenyl). While all R3P Ch reagents could be reduced, only the heavier ones led to clean reduction to S2−, Se2− and Te2− anions which were captured in the metalla-cycle. The smaller S2− anion can be stabilized by the tetrametallic MgNa3-crown but the larger Se2− and Te2− require a pentametallic MgNa4-crown. Reaction of the sulfide complex with N2O led to a rare thiohyponitrite cis-SNNO2− anion which is trapped in the pentametallic MgNa4-crown. Experimental observations and bonding characteristics of all complexes are supported by an additional computational study.
    
    
    
        
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    How to cite
    
        APA:
        Maurer, J., Klerner, L., Langer, J., & Harder, S. (2025). Redox-active inverse crowns - pockets for heavier chalcogenides. Dalton Transactions, 54(37), 13950-13957. https://doi.org/10.1039/d5dt01896j
    
    
        MLA:
        Maurer, Johannes, et al. "Redox-active inverse crowns - pockets for heavier chalcogenides." Dalton Transactions 54.37 (2025): 13950-13957.
    
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