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RHENIUM BASED SENSORS

https://doi.org/10.55452/1998-6688-2021-18-2-12-19

Abstract

In this literature review, the work of electrochemical sensors based on rhenium was considered. The research work of the rhenium-based sensors was compared with each other and a table was compiled.The ways of synthesis of rhenium-based working electrodes for the manufacture of electrochemical and biological sensors are determined. It was found that the methods of thermal, microwave-thermal oxidation, ultrasound, magnetron sputtering, and bi-exponential decomposition were widely used for the synthesis of rhenium-based sensors. The main parameters of the rhenium-based sensors were compared with respect to the selected analyte: detection limit, linear range, response time, sensitivity, etc. As a result of the reviewed scientific papers, it was assumed that the reason for choosing rhenium as an important element in rhenium-based sensors was high sensitivity, high melting point (above 3000 oC), fast response and low losses. It was found that rhenium-based sensors were used to detect aromatic organic compounds, histamine, DNA, oxygen, ions, carcinoembryonic antigen, solar yolk, heat flux, and tumor biomarker. This paper provides a summary of the current aspects of research work on rhenium-based electrochemical sensors.

About the Authors

A. A. Moldagaliyeva
Al-Farabi Kazakh National university
Kazakhstan

Moldagalieva Aida Asylbekovna – Master student

050000, Almaty



L. K. Kudreyeva
Al-Farabi Kazakh National university
Kazakhstan

Kudreeva Leila Kadirsizovna - Candidate of Chemical Sciences, Deputy Dean for educational, methodological and educational work

050000, Almaty



A. R. Kaliyeva
Al-Farabi Kazakh National university
Kazakhstan

Kalyeva Akmerey Rakhimovna – PhD student

050000, Almaty



K. Auyelbek
Al-Farabi Kazakh National university
Kazakhstan

Аuelbek Kazyna - Master student

050000, Almaty



References

1. L. Zhang, Y. Peng, J. Zhou, R. Zhang, S. Chen, and X. Yang, “Tungstenrhenium thermocouple sensor for in-situ ultra-high temperature measurement of hypersonic aircraft surface” 2014, pp. 1-5.

2. Zhang, Zhongkai et al. 2019. “Effect of Oxidation on Conductivity Characteristics of Tungsten-Rhenium Thin-Film Thermocouples Sensor.” Proceedings of the 14th Annual IEEE International Conference on Nano/Micro Engineered and Molecular Systems, NEMS 2019: pp. 114–17.

3. Kuczynska, Paulina, Malgorzata Jemiola-Rzeminska, and Kazimierz Strzalka. 2015. “Photosynthetic Pigments in Diatoms.” Marine Drugs 13(9): pp. 5847–81.

4. Papkovsky, B. Dmitri, and I. Ruslan, Dmitriev. 2013. “Biological Detection by Optical Oxygen Sensing.” Chemical Society Reviews 42(22): pp. 8700–8732.

5. Valdés, Eliseo et al. 2020. “An Amine Linker Group Modulates Luminescent Properties in a Rhenium (I) Tricarbonyl Complex. How Can It Be Applied for Ratiometric Oxygen Sensing?” Dyes and Pigments 172(August 2019): pp. 1077-87.

6. Spada, M. Ramiro et al. 2015. “Clean Singlet Oxygen Production by a ReI Complex Embedded in a Flexible Self-Standing Polymeric Silsesquioxane Film.” Journal of Physical Chemistry C 119(18): pp. 10148–59.

7. Liu, Liang, Yan Yang, and Jun sheng Feng. 2017. “Study on a Rhenium Complex Having an Electron-Pulling Ring and Its Oxygen Sensing Application: Synthesis, Characterization and Sensing Performance.” Sensors and Actuators, B: Chemical 253: pp. 310–16.

8. Sathish, Veerasamy et al. 2014. 130 Talanta Alkoxy Bridged Binuclear Rhenium (I) Complexes as a Potential Sensor for β-Amyloid Aggregation. Elsevier. pp. 274-279

9. Mullice, A. Lucy, and J.A. Simon, Pope. 2010. “The Development of Responsive, Luminescent Lifetime Probes Based upon Axially Functionalised Fac-[Re(CO)3 (Di-Imine)(L)] + Complexes.” Dalton Transactions 39(25): pp. 5908–17.

10. Intеrnаtionаl Diаbеtеs Foundаtion (IDF), Diаbеtеs Аtlаs, 4th еdition, 2010. [77] С. Bryаnt, D.B. Spеnсеr, А. Millеr, D.L. Bаkаysа, K.S. MсСunе, S.R. Mаplе, А.H. Pеkаr, D.N. Brеms, Асid stаbilizаtion of insulin, Bioсhеmistry 32 (1993) pp. 8075–8082.

11. J. Mohаnty, S.D. Сhoudhury, H. Pаl, А.С. Bhаsikuttаn, Еаrly dеtесtion of insulin fibrillаtion: а fluorеsсеnсе lifеtimе аssаy to probе thе prе-fibrillаr rеgimе, Сhеm. Сommun. 48 (2012) pp. 2403–2405.

12. N. K.Mishrа, K. B. Joshi, S. Vеrmа, Inhibition of Humаn аnd Bovinе Insulin Fibril Formаtion by Dеsignеd Pеptidе Сonjugаtеs, Mol. Phаrmасеutiсs 10 (2013) pp. 3903−3912.

13. V. Sаthish, А. Rаmdаss, Z.Z. Lu, M. Vеlаyudhаm, P. Thаnаsеkаrаn, K.L. Lu, S. Rаjаgopаl, Аggrеgаtion Induсеd Еmission Еnhаnсеmеnt in Аlkoxy Bridgеd Binuсlеаr Rhеnium(I) сomplеxеs-Аppliсаtion аs Sеnsor for Еxplosivеs аnd Intеrасtion with Miсrohеtеrogеnеous Mеdiа, J. Phys. Сhеm. B 117 (2013) pp. 14358–14366

14. V. Sаthish, Е. Bаbu, А. Rаmdаss, Z.Z. Lu, T.T. Сhаng, M. Vеlаyudhаm, P. Thаnаsеkаrаn, K.L. Lu, W.S. Li, S. Rаjаgopаl, Photoswitсhаblе аlkoxy-bridgеd binuсlеаr rhеnium(I) сomplеxеs – а potеntiаl probе for biomolесulеs аnd optiсаl сеll imаging, RSС Аdv. 3 (2013) pp. 18557–18566.

15. Bhuvaneswari, Jayaraman, Ayub Khan Fathima, and Seenivasan Rajagopal. 2012. “Rhenium(I)-Based Fluorescence Resonance Energy Transfer Probe for Conformational Changes of Bovine Serum Albumin.” Journal of Photochemistry and Photobiology A: Chemistry 227(1): pp. 38–44.

16. K. Sakthikumar, et al. 2016. “A Highly Stable Rhenium Organosol on a DNA Scaffold for Catalytic and SERS Applications.” Journal of Materials Chemistry C 4(26): pp. 6309–20.

17. Veseli, Albana et al. 2016. “Electrochemical Determination of Histamine in Fish Sauce Using Heterogeneous Carbon Electrodes Modified with Rhenium(IV) Oxide.” Sensors and Actuators, B: Chemical 228: pp. 774–81.

18. Sathish, Veerasamy et al. 2013. “Aggregation-Induced Emission Enhancement in Alkoxy-Bridged Binuclear Rhenium(I) Complexes: Application as Sensor for Explosives and Interaction with Microheterogeneous Media.” Journal of Physical Chemistry B 117(46): pp. 14358–66.

19. Chang, Kai Chi, Shih Sheng Sun, and Alistair J. Lees. 2012. “Anion Sensing by Rhenium(I) Carbonyls with Polarized N-H Recognition Motifs.” Inorganica Chimica Acta 389: 16–28.

20. Ramdass, Arumugam et al. 2013. “Monometallic Rhenium(I) Complexes as Sensor for Anions.” Inorganic Chemistry Communications 35: pp. 186–91.

21. Odago, Maurice O. et al. 2011. “Thioamide, Urea and Thiourea Bridged Rhenium(I) Complexes as Luminescent Anion Receptors.” Inorganica Chimica Acta 374(1): pp. 558–65.

22. Ramdass, Arumugam et al. 2017. 240 Sensors and Actuators, B: Chemical Luminescent Sensor for Copper(II) Ion Based on Imine Functionalized Monometallic Rhenium(I) Complexes. Elsevier B.V. pp. 1216-1225

23. Ramdass, Arumugam et al. 2015. “Synthesis and Characterization of Monometallic Rhenium(i) Complexes and Their Application as Selective Sensors for Copper(Ii) Ions.” RSC Advances 5(48): pp. 38479–88.

24. Bhuvaneswari, Jayaraman, Paulpandian Muthu Mareeswaran, Karunanithi Anandababu, and Seenivasan Rajagopal. 2014. “The Switching of a Rhenium(I) Complex from Turn-off to Turn-on Sensor System through Protein Binding.” RSC Advances 4(65): pp. 34659–68.

25. Lo, Kenneth Kam Wing, Man Wai Louie, and Kenneth Yin Zhang. 2010. “Design of Luminescent Iridium(III) and Rhenium(I) Polypyridine Complexes as in Vitro and in Vivo Ion, Molecular and Biological Probes.” Coordination Chemistry Reviews 254(21–22): pp. 2603–22.

26. Pu, Wan, Zhao Lun, Wang Lisha, and Xu Guangyang. 2013. “Linear Oxygen-Sensing Response from a Rhenium Complex Induced by Heavy Atom: Synthesis, Characterization, Photophysical Study and Sensing Performance.” Spectrochimica Acta - Part A: Molecular and Biomolecular Spectroscopy 112: pp. 228–36.

27. Wang, Chuan E. 2014. “An Oxygen-Sensing Rhenium(I) Complex with a Carbazole ‘Shield’ in Its Diamine Ligand: Synthesis, Characterization, Photophysical Property and Sensing Performance.” Journal of Luminescence 145: pp. 531–38.

28. Xu, Xiao Yong, and Han Ning Xiao. 2012. “A Diamine Ligand with Long Arms and Its Corresponding Dinuclear Rhenium(I) Complex: Synthesis, Characterization, Photophysical Property, and Sensing Activity towards Molecular Oxygen.” Journal of Luminescence 132(9): pp. 2251–58.

29. Wang, Xin Fang. 2013. “Study on a Rhenium(I) Complex with Oxadiazole-Derived Diamine Ligand: Synthesis, Characterization, Photophysical Property and Luminescence Response towards Molecular Oxygen.” Journal of Luminescence 134: pp. 508–14.

30. Fu, Xiaoli et al. 2020. “High-Temperature Heat Flux Sensor Based on Tungsten-Rhenium Thin-Film Thermocouple.” IEEE Sensors Journal 20(18): pp. 10444–52.

31. Bian et al. 2020. “Effect of Annealing on the Thermoelectricity Properties of the WRe26-In2O3 Thin Film Thermocouples.” Micromachines 11(7): pp. 664-670

32. Huang, Genin Gary et al. 2011. “Gondola-Shaped Tetra-Rhenium Metallacycles Modified Evanescent Wave Infrared Chemical Sensors for Selective Determination of Volatile Organic Compounds.” Talanta 85(1): pp. 63–69.

33. Huang, Genin Gary et al. 2018. “Cavity-Containing Rhenium Metallacycle Treated Evanescent Wave Infrared Chemical Sensors for the Selective Determination of Odorous Amines in the Atmosphere.” Sensors and Actuators, B: Chemical 254: pp. 424–30.

34. Liu, Kou et al. 2020. “A Sandwich-Type Photoelectrochemical Immunosensor Based on ReS2 Nanosheets for High-Performance Determination of Carcinoembryonic Antigen.” Sensors and Actuators, B: Chemical 320: pp. 128341. 35.

35. Veerakumar, Pitchaimani et al. 2018. “Activated Porous Carbon Supported Rhenium Composites as Electrode Materials for Electrocatalytic and Supercapacitor Applications.” Electrochimica Acta 271: pp. 433–47.


Review

For citations:


Moldagaliyeva A.A., Kudreyeva L.K., Kaliyeva A.R., Auyelbek K. RHENIUM BASED SENSORS. Herald of the Kazakh-British technical university. 2021;18(2):12-19. (In Kazakh) https://doi.org/10.55452/1998-6688-2021-18-2-12-19

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ISSN 1998-6688 (Print)
ISSN 2959-8109 (Online)