Laboratory complex for obtaining colloidal photonic-crystal structures. Part 1

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Abstract

Colloidal photonic crystal structures are a promising material for nanoengineering. The goal of the work was to create a set of scalable equipment for the synthesis of monodisperse colloidal particles and the production of superlattices from them. The authors presented a description of the kit, the results of a study of the structures and formulated recommendations for the design of equipment and the implementation of technological processes.

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About the authors

E. V. Panfilova

Bauman Moscow State Technical University (National Research university)

Author for correspondence.
Email: panfilova.e.v@bmstu.ru
ORCID iD: 0000-0001-7944-2765

Cand. of Sci. (Tech), Docent

Russian Federation, Moscow

V. A. Diubanov

Bauman Moscow State Technical University (National Research university)

Email: panfilova.e.v@bmstu.ru
ORCID iD: 0009-0007-8569-3270

Postgraduate

Russian Federation, Moscow

A. R. Ibragimov

Bauman Moscow State Technical University (National Research university)

Email: panfilova.e.v@bmstu.ru

Assistant

Russian Federation, Moscow

D. Yu. Shramko

Bauman Moscow State Technical University (National Research university)

Email: panfilova.e.v@bmstu.ru
ORCID iD: 0000-0002-0824-6772

Assistant

Russian Federation, Moscow

References

  1. Панфилова Е.В. Перспективные методы формирования планарных наноструктур // Наноинженерия, Машиностроение. 2014. № 8. С. 29–33.
  2. Chen G., Hong W. Mechanochromism of structural-colored materials // Advanced Optical Materials. 2020. Vol. 8. No. 19. P. 2000984.
  3. Ding T. et al. Revealing invisible photonic inscriptions: images from strain // ACS Applied Materials & Interfaces. 2015. Vol. 7. No. 24. PP. 13497–13502.
  4. Inan H. et al. Photonic crystals: emerging biosensors and their promise for point-of-care applications // Chemical Society Reviews. 2017. Vol. 46. No. 2. PP. 366–388.
  5. Hongbo X. et al. H2O-and ethanol concentration-responsive polymer/gel inverse opal photonic crystal // Journal of Colloid and Interface Science. 2022. Vol. 605. PP. 803–812.
  6. Kocak G., Tuncer C., Bütün V. pH-Responsive polymers // Polymer Chemistry. 2017. Vol. 8. No. 1. PP. 144–176.
  7. He G., Manthiram A. Nanostructured Li2MnSiO4/C cathodes with hierarchical macro-/mesoporosity for lithium-ion batteries // Advanced Functional Materials. 2014. Vol. 24. No. 33. PP. 5277–5283.
  8. Hines L. et al. Soft actuators for small-scale robotics // Advanced materials. 2017. Vol. 29. No. 13. P. 1603483.
  9. Wang Y. et al. Chameleon-inspired structural-color actuators // Matter. 2019. Vol. 1. No. 3. PP. 626–638.
  10. Joshi G.K. et al. Ultrasensitive photoreversible molecular sensors of azobenzene-functionalized plasmonic nanoantennas // Nano Letters. 2014. Vol. 14. No. 2. PP. 532–540.
  11. Ming T. et al. Resonance-Coupling-Based Plasmonic Switches // Small. 2010. Vol. 6. No. 22. PP. 2514–2519.
  12. Franklin D. et al. Polarization-independent actively tunable colour generation on imprinted plasmonic surfaces // Nature communications. 2015. Vol. 6. No. 1. P. 7337.
  13. Shao L., Zhuo X., Wang J. Advanced plasmonic materials for dynamic color display // Advanced Materials. 2018. Vol. 30. No. 16. P. 1704338.
  14. Puzzo D.P. et al. Electroactive inverse opal: a single material for all colors // Angewandte Chemie. 2009. Vol. 121. No. 5. PP. 961–965.
  15. Walish J.J. et al. Bioinspired electrochemically tunable block copolymer full color pixels // Advanced Materials. 2009. Vol. 21. No. 30. PP. 3078–3081.
  16. Nonappa. Precision nanoengineering for functional self-assemblies across length scales // Chemical Communications. 2023. Vol. 59. No. 93. PP. 13800–13819.
  17. Панфилова Е.В., Хань Н.Т.Х., Дюбанов В.А. Разработка процесса получения коллоидного монослоя полистирола для технологии микросферной литографии // Инженерный журнал: наука и инновации. 2020. № 10 (106). P. 8.
  18. Narayanan S. et al. Thin photonic crystal templates for enhancing the SERS signal: a case study using very low concentrations of dye molecules // Physica Scripta. 2024. Vol. 99. No. 3. P. 035512.
  19. Snapp P. et al. Colloidal photonic crystal strain sensor integrated with deformable graphene phototransducer // Advanced Functional Materials. 2019. Vol. 29. No. 33. P. 1902216.
  20. Беседина К.Н. Разработка методов управляемого формирования и исследование тонкопленочных опаловых наноструктур: дис. на соискание ученой степени кандидата технических наук. Москва, 2014.
  21. Ko Y.G., Shin D.H. Effects of liquid bridge between colloidal spheres and evaporation temperature on fabrication of colloidal multilayers // The Journal of Physical Chemistry B. 2007. Vol. 111. No. 7. PP. 1545–1551.

Supplementary files

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2. Fig.1. Structural transformation stages in technology of colloidal photonic crystals formation

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3. Fig.2. Structure of the laboratory complex

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4. Fig.3. Methods of controlled stimulation of self-assembly process in obtaining colloidal photonic crystals: a – dip coating; b – vertical depo- sition; c – electrophoretic deposition; d – Langmuir – Blodgett technique; e – spin coating; f – centrifugation method in test tubes

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5. Fig.4. Plot of dependence of the number of layers in the colloidal film on the pulling speed

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Copyright (c) 2024 Panfilova E.V., Diubanov V.A., Ibragimov A.R., Shramko D.Y.

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