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Matthew O. Blunt

Researcher at University College London

Publications -  42
Citations -  2573

Matthew O. Blunt is an academic researcher from University College London. The author has contributed to research in topics: Dewetting & Supramolecular chemistry. The author has an hindex of 26, co-authored 39 publications receiving 2387 citations. Previous affiliations of Matthew O. Blunt include University of Nottingham & Katholieke Universiteit Leuven.

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Vernier templating and synthesis of a 12-porphyrin nano-ring

TL;DR: Vernier complexes can solve the problem of covalent synthesis of challenging targets by establishing Vernier templating as a powerful new strategy for the synthesis of large monodisperse macromolecules.
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Random Tiling and Topological Defects in a Two-Dimensional Molecular Network

TL;DR: A molecular network that exhibits critical correlations in the spatial order that is characteristic of a random, entropically stabilized, rhombus tiling is described and a topological defect can propagate through the network, giving rise to a local reordering of molecular tiles and thus to transitions between quasi-degenerate local minima of a complex energy landscape.
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Templating molecular adsorption using a covalent organic framework

TL;DR: A two-dimensional nanoporous covalent organic framework can be prepared on a Au(111) substrate with near complete surface coverage and can be used to control the organisation of a sublimed layer of C(60).
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Temperature-Induced Structural Phase Transitions in a Two-Dimensional Self-Assembled Network

TL;DR: Using scanning tunnelling microscopy (STM) to investigate a structural phase transition between a densely packed and a porous phase of an alkylated dehydrobenzo[12]annulene (DBA) derivative physisorbed at a solvent-graphite interface demonstrates the power of using structural phase transitions to study the thermodynamics of these systems.
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Control and induction of surface-confined homochiral porous molecular networks

TL;DR: The present results provide important impetus for the development of two-dimensional crystal engineering and may afford opportunities for the utilization of chiral nanowells in chiral recognition processes, as nanoreactors and as data storage systems.