Structural diversity in three-dimensional self-assembly of nanoplatelets by spherical confinement

Publication date

2022-12

Authors

Wang, D.ISNI 0000000492960155
Hermes, M.ISNI 0000000394171507
Najmr, Stan
Tasios, Nikos
Grau Carbonell, AlbertISNI 0000000492825287
Liu, YangISNI 0000000440384408
Bals, Sara
Dijkstra, MarjoleinISNI 0000000358257928
Murray, Christopher B.
van Blaaderen, AlfonsISNI 0000000388251965

Editors

Advisors

Supervisors

Document Type

Article
Open Access logo

License

cc_by

Abstract

Nanoplatelets offer many possibilities to construct advanced materials due to new properties associated with their (semi)two-dimensional shapes. However, precise control of both positional and orientational order of the nanoplatelets in three dimensions, which is required to achieve emerging and collective properties, is challenging to realize. Here, we combine experiments, advanced electron tomography and computer simulations to explore the structure of supraparticles self-assembled from nanoplatelets in slowly drying emulsion droplets. We demonstrate that the rich phase behaviour of nanoplatelets, and its sensitivity to subtle changes in shape and interaction potential can be used to guide the self-assembly into a wide range of different structures, offering precise control over both orientation and position order of the nanoplatelets. Our research is expected to shed light on the design of hierarchically structured metamaterials with distinct shape- and orientation- dependent properties.

Keywords

General Chemistry, General Biochemistry,Genetics and Molecular Biology, General, General Physics and Astronomy

Citation

Wang, D, Hermes, M, Najmr, S, Tasios, N, Grau-Carbonell, A, Liu, Y, Bals, S, Dijkstra, M, Murray, C B & van Blaaderen, A 2022, 'Structural diversity in three-dimensional self-assembly of nanoplatelets by spherical confinement', Nature Communications, vol. 13, no. 1, 6001, pp. 1-12. https://doi.org/10.1038/s41467-022-33616-y