Thin films with implemented molecular switches for the application in polymer-based optical waveguides

Research output: Contribution to journalArticleResearchpeer review

Authors

  • Maximilian Seydi Kilic
  • Jules Brehme
  • Yves Deja
  • Justus Pawlak
  • Axel Günther
  • Arthur Sander
  • Dietrich Müller
  • Antonia Renz
  • Cyril Rajnak
  • Michaela Polášková
  • Bernhard Roth
  • Ralf Franz Sindelar
  • Franz Renz

External Research Organisations

  • University of Applied Sciences and Arts Hannover (HsH)
  • University of SS Cyril and Methodius, Trnava
  • Palacky University
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Details

Original languageEnglish
Article number8
Number of pages15
JournalHyperfine Interactions
Volume245
Publication statusPublished - 18 Jan 2024

Abstract

Complexes like iron (II)-triazoles exhibit spin crossover behavior at ambient temperature and are often considered for possible application. In previous studies, we implemented complexes of this type into polymer nanofibers and first polymer-based optical waveguide sensor systems. In our current study, we synthesized complexes of this type, implemented them into polymers and obtained composites through drop casting and doctor blading. We present that a certain combination of polymer and complex can lead to composites with high potential for optical devices. For this purpose, we used two different complexes [Fe(atrz)3](2ns)2 and [Fe(atrz)3]Cl1.5(BF4)0.5 with different polymers for each composite. We show through transmission measurements and UV/VIS spectroscopy that the optical properties of these composite materials can reversibly change due to the spin crossover effect.

Keywords

    Composite materials, Molecular switches, Polymers, Spin crossover, Thin film, Triazole complexes, Waveguides

ASJC Scopus subject areas

Cite this

Thin films with implemented molecular switches for the application in polymer-based optical waveguides. / Kilic, Maximilian Seydi; Brehme, Jules; Deja, Yves et al.
In: Hyperfine Interactions, Vol. 245, 8, 18.01.2024.

Research output: Contribution to journalArticleResearchpeer review

Kilic, MS, Brehme, J, Deja, Y, Pawlak, J, Günther, A, Sander, A, Müller, D, Renz, A, Rajnak, C, Polášková, M, Roth, B, Sindelar, RF & Renz, F 2024, 'Thin films with implemented molecular switches for the application in polymer-based optical waveguides', Hyperfine Interactions, vol. 245, 8. https://doi.org/10.1007/s10751-024-01849-6
Kilic, M. S., Brehme, J., Deja, Y., Pawlak, J., Günther, A., Sander, A., Müller, D., Renz, A., Rajnak, C., Polášková, M., Roth, B., Sindelar, R. F., & Renz, F. (2024). Thin films with implemented molecular switches for the application in polymer-based optical waveguides. Hyperfine Interactions, 245, Article 8. https://doi.org/10.1007/s10751-024-01849-6
Kilic MS, Brehme J, Deja Y, Pawlak J, Günther A, Sander A et al. Thin films with implemented molecular switches for the application in polymer-based optical waveguides. Hyperfine Interactions. 2024 Jan 18;245:8. doi: 10.1007/s10751-024-01849-6
Kilic, Maximilian Seydi ; Brehme, Jules ; Deja, Yves et al. / Thin films with implemented molecular switches for the application in polymer-based optical waveguides. In: Hyperfine Interactions. 2024 ; Vol. 245.
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title = "Thin films with implemented molecular switches for the application in polymer-based optical waveguides",
abstract = "Complexes like iron (II)-triazoles exhibit spin crossover behavior at ambient temperature and are often considered for possible application. In previous studies, we implemented complexes of this type into polymer nanofibers and first polymer-based optical waveguide sensor systems. In our current study, we synthesized complexes of this type, implemented them into polymers and obtained composites through drop casting and doctor blading. We present that a certain combination of polymer and complex can lead to composites with high potential for optical devices. For this purpose, we used two different complexes [Fe(atrz)3](2ns)2 and [Fe(atrz)3]Cl1.5(BF4)0.5 with different polymers for each composite. We show through transmission measurements and UV/VIS spectroscopy that the optical properties of these composite materials can reversibly change due to the spin crossover effect.",
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AU - Kilic, Maximilian Seydi

AU - Brehme, Jules

AU - Deja, Yves

AU - Pawlak, Justus

AU - Günther, Axel

AU - Sander, Arthur

AU - Müller, Dietrich

AU - Renz, Antonia

AU - Rajnak, Cyril

AU - Polášková, Michaela

AU - Roth, Bernhard

AU - Sindelar, Ralf Franz

AU - Renz, Franz

N1 - Funding Information: We thank the Nihei Laboratory of the Graduate School of Pure and Applied Sciences of the University of Tsukuba for the elemental analysis measurements. We furthermore thank the Deutsche Forschungsgemeinschaft (DFG), the Hannover School for Nanotechnology (HSN). Funding Information: Open Access funding enabled and organized by Projekt DEAL. The authors acknowledge financial support from the German Research Foundation DFG (German Research Foundation, Project ID RE 1627/13-1 and RO 3471/23-1). A.G. and B.R. also acknowledge financial support from the German Research Foundation (DFG) under Germany’s Excellence Strategy within the Cluster of Excellence PhoenixD (EXC 2122, Project ID 390833453)

PY - 2024/1/18

Y1 - 2024/1/18

N2 - Complexes like iron (II)-triazoles exhibit spin crossover behavior at ambient temperature and are often considered for possible application. In previous studies, we implemented complexes of this type into polymer nanofibers and first polymer-based optical waveguide sensor systems. In our current study, we synthesized complexes of this type, implemented them into polymers and obtained composites through drop casting and doctor blading. We present that a certain combination of polymer and complex can lead to composites with high potential for optical devices. For this purpose, we used two different complexes [Fe(atrz)3](2ns)2 and [Fe(atrz)3]Cl1.5(BF4)0.5 with different polymers for each composite. We show through transmission measurements and UV/VIS spectroscopy that the optical properties of these composite materials can reversibly change due to the spin crossover effect.

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