Journal of Physical Studies 27(1), Article 1402 [7 pages] (2023)
DOI: https://doi.org/10.30970/jps.27.1402

USING THE FABRY–PÉROT INTERFEROMETER AS A SPECTRAL MASK

Yu. Bilak , V. Kozubovskii, M. Rol 

Uzhhorod National University, 3, Narodna Sq., Uzhhorod

Received 22 October 2022; in final form 09 January 2023; accepted 17 January 2023; published online 26 January 2023

Precise analysis of complex gas mixtures is an urgent task today, since its accuracy and quality is important not only for human health, but also for the ecology of population centers or the planet as a whole. Traditional methods of gas environment analysis are imperfect, and those that have the necessary sensitivity and selectivity do not yield results in a particularly short time.

Nowadays, the Fabry-Pérot interferometry is used for research in a significant number of industrial and scientific areas. The analysis of the works presented in this paper confirms the relevance of research in the field of multibeam interferometry and the prospects of developing modifications of the Fabry-Pérot interferometer.

The article is devoted to classical optical correlation methods for the analysis of gas mixtures with a quasi-periodic structure of the spectrum. A modification of the analyzer was developed and it was shown that the use of the modified Fabry-Pérot interferometer as a correlation mask ensures the express realization of the selectivity of the measurement components.

An experimental study was conducted to test the possibility of scanning the SO$_{2}$ absorption spectrum in the 220 nm region. Laboratory tests of the described layout of the SO$_{2}$ analyzer demonstrated its high metrological parameters. The main reported error was 1\

We can state that the correlation masks based on the IFP can be widely used for the analysis of gas components with a quasi-periodic structure of the spectrum. Compared to other devices of a similar type, they have a much higher luminous intensity: $U=Ω A$, where $Ω$ is the solid angle; $A$ is the light diameter of the IFP with the same resolution. This is crucial for remote instruments [V. R. Kozubovskii, Yu. Yu. Bilak, Ukr. J. Phys. 66, 664 (2021)]. In addition, their small weight and dimensions allow one to create portable devices based on them. However, since the IFP is a multi-beam interferometer, the procedure for optimizing its parameters is rather complicated, although technical methods for solving this problem exist [V. R. Kozubovskii, V. L. Goldovskii, O. D. Kraysler, AS 1182345 USSR, MKI G01N 21/61].

The conducted analysis and research open up new opportunities for the optimization of interferometric devices and interferometric methods of gas analysis.

Key words: interference devices, Fabry–Pérot interferometer, interference-polarization filter, spectrum, spectrum scanning methods, analyzer, correlation mask.

Full text


References
  1. M. M. Millan, R. M. Hoff, Appl. Opt. 16, 1609 (1977).
    Crossref
  2. Md. R. Islam, M.M. Ali, M.-H. Lai, K.-S. Lim, A. Harith, Sensors, 14 7451 (2014);
    Crossref
  3. R.-q. Lv, Y. Zhao, D. Wang, Q. Wang, IEEE Photon. Tech. Lett. 26, 217 (2014);
    Crossref
  4. C.-W. Lai, J.-P. Yur, C.-C. Liao, Y.-L. Lo, Recent Pat. Signal Process 1, 48 (2011);
    Crossref
  5. Y. Du et al., IEEE Sens. J. 14, 1069 (2014);
    Crossref
  6. W. Xu, W.-B. Huang, X.-G. Huang, C.-Y. Yu, Opt. Fiber Technol. 19, 583 (2013);
    Crossref
  7. В. А. Новиков, А. А. Молчанов, Журн. прикл. спектр. 48, 1026 (1988).
  8. Г. М. Хапланов, Т. Г. Сизенко, В. Н. Остахов, АС 1156457 СССР, МКИ G01N 21/45 (1982).
  9. L. Crescentini, Appl. Opt. 30, 3114 (1991);
    Crossref
  10. X. Wang et al., IOP Conf. Ser.: Earth Environ. Sci. 111, 012013 (2018);
    Crossref
  11. V. R. Kozubovsky, Yu. Yu. Bilak, J. Appl. Spectrosc. 89, 495 (2022);
    Crossref
  12. В. Р. Козубовский, В. Л. Голдовский, О. Д. Крайслер, АС 1182345 СССР, МКИ G01N 21/61 (1985).
  13. G. Fortunato et al., patent 2555747 France (1985).
  14. В. И. Малышев, Введение в экспериментальную спектроскопию (Наука, Москва, 1979).
  15. А. Г. Жиглинский, В. В. Кучинский, Реальный интерферометр Фабри–Перо (Машиностроение, Ленинград, 1983).
  16. И. В. Скоков, Многолучевые интерферометры в измерительной технике (Машиностроение, Москва, 1989).
  17. V. R. Kozubovskii, Yu. Yu. Bilak, Ukr. J. Phys. 66, 664 (2021);
    Crossref