Staff Publications

Staff Publications

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    'Staff publications' is the digital repository of Wageningen University & Research

    'Staff publications' contains references to publications authored by Wageningen University staff from 1976 onward.

    Publications authored by the staff of the Research Institutes are available from 1995 onwards.

    Full text documents are added when available. The database is updated daily and currently holds about 240,000 items, of which 72,000 in open access.

    We have a manual that explains all the features 

Record number 551801
Title Controlling Superstructure-Property Relationships via Critical Casimir Assembly of Quantum Dots
Author(s) Marino, Emanuele; Balazs, Daniel M.; Crisp, Ryan W.; Hermida-Merino, Daniel; Loi, Maria A.; Kodger, Thomas E.; Schall, Peter
Source The Journal of Physical Chemistry Part C: Nanomaterials and Interfaces 123 (2019)22. - ISSN 1932-7447 - p. 13451 - 13457.
DOI https://doi.org/10.1021/acs.jpcc.9b02033
Department(s) Physical Chemistry and Soft Matter
Publication type Refereed Article in a scientific journal
Publication year 2019
Abstract

The assembly of colloidal quantum dots (QDs) into dense superstructures holds great promise for the development of novel optoelectronic devices. Several assembly techniques have been explored; however, achieving direct and precise control over the interparticle potential that controls the assembly has proven to be challenging. Here, we exploit the application of critical Casimir forces to drive the growth of QDs into superstructures. We show that the exquisite temperature-dependence of the critical Casimir potential offers new opportunities to control the assembly process and morphology of the resulting QD superstructures. The direct assembly control allows us to elucidate the relation between structural, optical, and conductive properties of the critical Casimir-grown QD superstructures. We find that the choice of the temperature setting the interparticle potential plays a central role in maximizing charge percolation across QD thin-films. These results open up new directions for controlling the assembly of nanostructures and their optoelectronic properties.

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