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Vladimir K. Michaelis

Researcher at University of Alberta

Publications -  161
Citations -  6570

Vladimir K. Michaelis is an academic researcher from University of Alberta. The author has contributed to research in topics: Nuclear magnetic resonance spectroscopy & Chemistry. The author has an hindex of 43, co-authored 143 publications receiving 5104 citations. Previous affiliations of Vladimir K. Michaelis include Massachusetts Institute of Technology & University of Manitoba.

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C3N5: A Low Bandgap Semiconductor Containing an Azo-Linked Carbon Nitride Framework for Photocatalytic, Photovoltaic and Adsorbent Applications.

TL;DR: The relatively narrow bandgap and 2D structure of C3N5 make it an interesting air-stable and temperature-resistant semiconductor for optoelectronic applications while its electron-rich character and intrasheet cavity make it a attractive supramolecular adsorbent for environmental applications.
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Phenyl Ring Dynamics in a Tetraphenylethylene-Bridged Metal–Organic Framework: Implications for the Mechanism of Aggregation-Induced Emission

TL;DR: It is shown that a perdeuterated TPE-based metal-organic framework (MOF) serves as an excellent platform for studying the low-energy vibrational modes of AIE-type chromophores, and a set of design criteria for the development of tunable turn-on porous sensors constructed from AIe-type molecules is proposed.

Phenyl Ring Dynamics in a Tetraphenylethylene-Bridged Metal–Organic Framework: Implications for the Mechanism of Aggregation-Induced Emission

TL;DR: In this paper, a perdeuterated tetraphenylethylene (TPE) based metal-organic framework was used to study the low-energy vibrational modes of aggregation-induced emission (AIE) type chromophores.
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Thiophene-based covalent organic frameworks.

TL;DR: The synthesis and characterization of covalent organic frameworks incorporating thiophene-based building blocks are reported, showing that these are amenable to reticular synthesis, and that bent ditopic monomers, such as 2,5-thiophenediboronic acid, are defect-prone building blocks that are susceptible to synthetic variations during COF synthesis.
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Highly branched and loop-rich gels via formation of metal-organic cages linked by polymers.

TL;DR: A new class of gels assembled from polymeric ligands and metal-organic cages (MOCs) as junctions are reported, precisely tunable and may feature increased branch functionality.