Sensing the heavy water concentration in an H2O—D2O mixture by solid—solid phononic crystals

doi:10.1088/1674-1056/ad0bf5

Abstract A new method based on phononic crystals is presented to detect the concentration of heavy water (D₂O) in an H₂O—D₂O mixture. Results have been obtained and analyzed in the concentration range of 0%—10% and 90%—100% D₂O. A proposed structure of tungsten scatterers in an aluminum host is studied. In order to detect the target material, a cavity region is considered as a sound wave resonator in which the target material with different concentrations of D₂O is embedded. By changing the concentration of D₂O in the H₂O—D₂O mixture, the resonance frequency undergoes a frequency shift. Each 1% change in D₂O concentration in the H₂O—D₂O mixture causes a frequency change of about 120 Hz. The finite element method is used as the numerical method to calculate and analyze the natural frequencies and transmission spectra of the proposed sensor. The performance evaluation index shows a high Q factor up to 1475758 and a high sensitivity up to 13075, which are acceptable values for sensing purposes. The other figures of merit related to the detection performance also indicate high-quality performance of the designed sensor.

Keywords: phononic crystals sensor H₂O—D₂O mixture cavity

Received: 22 July 2023
Revised: 10 November 2023
Accepted manuscript online: 13 November 2023

PACS:	43.20.+g	(General linear acoustics)
	43.40.+s	(Structural acoustics and vibration)
	43.58.+z	(Acoustical measurements and instrumentation)

Corresponding Authors: Ali Bahrami
E-mail: bahrami@sut.ac.ir

Cite this article:

Mohammadreza Rahimi and Ali Bahrami Sensing the heavy water concentration in an H₂O—D₂O mixture by solid—solid phononic crystals 2024 Chin. Phys. B 33 044301

[1] Herrig S, Thol M, Harvey A H and Lemmon E W 2018 J. Phys. Chem. Ref. Data 1 47
[2] Lago S, Albo P G and Cavuoto G 2020 Fluid Ph. Equilibria. 15 112401
[3] Kim J, Seo S and Kim T Y 2023 Anal. Chim. Acta 15 1
[4] Rae H K 1978 Jan. Am. Chem. Soc (Washington DC)
[5] Dunning S G, Nuñez A J, Moore M D, Steiner A, Lynch V M, Sessler J L, Holliday B J and Humphrey S M 2017 Chem 2 579
[6] Mir I A, Rawat K and Bohidar H B 2016 Cryst. Res. Technol. 51 561
[7] Gharibi H and Mehaney A 2021 Physica E 126 114429
[8] Gharibi H and Bahrami A 2020 J. Mol. Liq. 305 112841
[9] Lucklum R, Ke M and Zubtsov M 2012 Sens. Actuators B Chem. 171 271
[10] Lucklum R 2014 Procedia Eng. 2014 Jan 87 40
[11] Villa-Arango S, Betancur D, Torres R and Kyriacou P 2018 Sensors 18 3618
[12] Alrowaili Z A, Fathy H M, Elsayed H A, Aouassa M, Mahmoud M H, El-Nasser K S, Taha T A and Mehaney A 2023 Ultrasonics 130 106928
[13] Miao X B, Dong H W and Wang Y S 2023 Eng. Optim. 55 125
[14] Rahimi M R and Bahrami A 2022 ISAV2022 Amirkabir University of Technology (Tehran Polytechnic), Iran pp. 1——6
[15] Lucklum F and Vellekoop M J 2016 IEEE Sensors pp. 1——3
[16] Gueddida A, Zhang V, Carpentier L, Bonhomme J, Bonello B, Pennec Y and Djafari-Rouhani 2023 Sensors 23 2080
[17] Mukhin N, Kutia M, Aman A, Steinmann U and Lucklum R 2022 Sensors 22 2816
[18] Motaei F and Bahrami A 2022 Sci. Rep. 12 10522
[19] Motaei F and Bahrami 2020 J. Mater. Sci. 55 8983
[20] Mehaney A 2019 Ultrasonics 93 37
[21] Gharibi H, Khaligh A, Bahrami A and Ghavifekr H B 2019 J. Mol. Liq. 296 111878
[22] Khaligh A, Bahrami A and Ghavifekr H B 2021 J. Mol. Liq. 343 116972
[23] Zaremanesh M, Carpentier L, Gharibi H, Bahrami A, Mehaney A, Gueddida A, Lucklum R, Djafari-Rouhani B and Pennec Y 2021 APL Mater. 9
[24] Wu Y, Lai Y and Zhang Z Q 2011 Phys. Rev. Lett. 107 105506
[25] Wilson W D 1961 JASA 1961 314
[26] Schaaffs W 1967 Molecular Acoustics Springer-Verlag (Berlin, Germany)
[27] Bhardwaj V and Singh V K 2016 Sens. Actuator A Phys. 244 30
[28] Mehaney A 2020 MRX 6 125556

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Sensing the heavy water concentration in an H2O—D2O mixture by solid—solid phononic crystals

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Sensing the heavy water concentration in an H₂O—D₂O mixture by solid—solid phononic crystals