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Wenjing Meng

Researcher at University of Cambridge

Publications -  14
Citations -  992

Wenjing Meng is an academic researcher from University of Cambridge. The author has contributed to research in topics: Chemistry & Adduct. The author has an hindex of 10, co-authored 12 publications receiving 834 citations. Previous affiliations of Wenjing Meng include GlaxoSmithKline & University of Oxford.

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A Self‐Assembled M8L6 Cubic Cage that Selectively Encapsulates Large Aromatic Guests

TL;DR: This cage represents the first example of a new class of closed-face metallosupramolecular cubic hosts to be synthesized and has the potential to create new chemical functionality through the introduction of different metal ions into the centers of the N4 macrocycle and by substituting these metals axial ligands.
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Controlling the Transmission of Stereochemical Information through Space in Terphenyl-Edged Fe4L6 Cages

TL;DR: The general principles underlying the delicately balanced thermodynamics were determined and the factors contributing to the transfer of chiral information between metal vertices were analyzed.
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An autonomous molecular assembler for programmable chemical synthesis

TL;DR: In this paper, an autonomous cascade of DNA hybridization reactions can create oligomers, from building blocks linked by olefin or peptide bonds, with a sequence defined by a reconfigurable molecular program.
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Guest-induced transformation of a porphyrin-edged Fe(II)4L6 capsule into a Cu(I)Fe(II)2L4 fullerene receptor.

TL;DR: This cage was found to transform into a new host-guest complex incorporating three Fe(II) centers and four porphyrin ligands, in an arrangement that is hypothesized to maximize π interactions between the porphirin units of the host and the fullerene guest bound within its central cavity.
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Design Principles for the Optimization of Guest Binding in Aromatic-Paneled FeII4L6 Cages.

TL;DR: Cages with large, offset aromatic panels were observed to be the most effective hosts as a result of a preference for a ligand conformation where the aromatic panels lie tangent to the edges of the tetrahedron, thus maximizing cavity enclosure.