Reversible alkene binding to a low-valent main group complex is documented. The reaction involves an aluminium(I) reagent and includes both terminal and strained alkenes. This reversible binding event is just a forerunner to non-reversible C–H activation of the allylic position of the alkene. Mechanistic analysis shows that in contrast to common transition metal systems, the C–H activation does not proceed from a metal bound alkene complex. Dissociation of the alkene and reformation of the aluminium(I) fragment is required to liberate the active site and frontier molecular orbitals involved in C–H activation
Various theoretical studies of σ-bond activation of organic molecules by transition metal complexes ...
Aluminum(I) and magnesium(I) compounds are reported for the C–C σ-bond activation of strained alkyli...
Aryl ether bond activation is of interest in the context of lignin conversion and org. methodol. To ...
Anionic molecular imide complexes of aluminium are accessible via a rational synthetic approach invo...
The selective transformation of ubiquitous but inert C–H bonds to other functional groups has far-re...
International audienceC–H bond activation via σ-bond metathesis is typically observed with transitio...
C–H bond activation via σ-bond metathesis is typically observed with transition-metal alkyl compound...
Anionic molecular imide complexes of aluminium are accessible via a rational synthetic approach invo...
The activation of C-C bonds is of fundamental interest in the construction of complex molecules from...
A [2.2.1] aluminium metallobicycle is capable of reversibly inserting CO to form a [2.2.2] metallobi...
The activation of C-C bonds is of fundamental interest in the construction of complex molecules from...
Recent computational studies of C–H bond activation at late transition metal systems are discussed a...
A series of linear late transition metal (M = Cu, Ag, Au and Zn) complexes featuring a side-on [B=C]...
The oxidative addition of sp2 C–H bonds of alkenes to single-site transition metal complexes is comp...
The oxidative addition of sp2 C–H bonds of alkenes to single-site transition-metal complexes is comp...
Various theoretical studies of σ-bond activation of organic molecules by transition metal complexes ...
Aluminum(I) and magnesium(I) compounds are reported for the C–C σ-bond activation of strained alkyli...
Aryl ether bond activation is of interest in the context of lignin conversion and org. methodol. To ...
Anionic molecular imide complexes of aluminium are accessible via a rational synthetic approach invo...
The selective transformation of ubiquitous but inert C–H bonds to other functional groups has far-re...
International audienceC–H bond activation via σ-bond metathesis is typically observed with transitio...
C–H bond activation via σ-bond metathesis is typically observed with transition-metal alkyl compound...
Anionic molecular imide complexes of aluminium are accessible via a rational synthetic approach invo...
The activation of C-C bonds is of fundamental interest in the construction of complex molecules from...
A [2.2.1] aluminium metallobicycle is capable of reversibly inserting CO to form a [2.2.2] metallobi...
The activation of C-C bonds is of fundamental interest in the construction of complex molecules from...
Recent computational studies of C–H bond activation at late transition metal systems are discussed a...
A series of linear late transition metal (M = Cu, Ag, Au and Zn) complexes featuring a side-on [B=C]...
The oxidative addition of sp2 C–H bonds of alkenes to single-site transition metal complexes is comp...
The oxidative addition of sp2 C–H bonds of alkenes to single-site transition-metal complexes is comp...
Various theoretical studies of σ-bond activation of organic molecules by transition metal complexes ...
Aluminum(I) and magnesium(I) compounds are reported for the C–C σ-bond activation of strained alkyli...
Aryl ether bond activation is of interest in the context of lignin conversion and org. methodol. To ...