1 Critical study about recent advanced materials and their electrochemical sensing of organic pollutants 10.61186/jcc.5.2.5 1 Because of their unique physical, chemical, and biological characteristics, conductive nanomaterials have a lot of potential for applications in materials science, energy storage, environmental science, biomedicine, sensors/bio-sensors, and other fields. Recent breakthroughs in the manufacture of carbon materials, conductive polymers, metals, and metal oxide nanoparticles based electrochemical sensors and biosensors for applications in environmental monitoring by detection of catechol (CC) and hydroquinone (HQ) are presented in this review. To achieve this goal, we first introduced recent works that discuss the effects of phenolic compounds and the need for accurate, inexpensive, and quick monitoring, and then we focused on the use of the most important applications of nanomaterials, such as carbon-based materials, metals, and metal oxides nanoparticles, and conductive polymers, to develop sensors to monitor catechol and hydroquinone. Finally, we identified challenges and limits in the field of sensors and biosensors, as well as possibilities and recommendations for developing the field for better future applications. Meanwhile, electrochemical sensors and biosensors for catechol and hydroquinone measurement and monitoring were highlighted and discussed particularly. This review, we feel, will aid in the promotion of nanomaterials for the development of innovative electrical sensors and nanodevices for environmental monitoring. 102 124 Hicham Meskher Division of Process Engineering, College of Science and Technology, Chadli Bendjedid University, 36000 Algeria h.meskher@univ-eltarf.dz Advanced materials Carbon based materials Organic pollutant Electrochemical sensing Article5.pdf [1] K. Scida, P.W. Stege, G. Haby, G.A. Messina, C.D. García, Recent applications of carbon-based nanomaterials in analytical chemistry: Critical review, Analytica Chimica Acta 691(1) (2011) 6-17.##[2] T. Huang, X. Tang, K. Luo, Y. Wu, X. Hou, S. Tang, An overview of graphenebased nanoadsorbent materials for environmental contaminants detection, TrAC Trends in Analytical Chemistry 139 (2021) 116255.##[3] M. Farré, S. Pérez, C. Gonçalves, M.F. Alpendurada, D. Barceló, Green analytical chemistry in the determination of organic pollutants in the aquatic environment, TrAC Trends in Analytical Chemistry 29(11) (2010) 1347-1362.##[4] X. Yuan, B. Wang, C. Yan, W. Lv, Q. Ma, B. Zheng, J. Du, D. Xiao, A rapid and simple strategy for discrimination and detection of catechol and hydroquinone by fluorescent silicon nanoparticles, Microchemical Journal 158 (2020) 105263.##[5] C. Maraveas, I.S. Bayer, T. Bartzanas, Recent Advances in Antioxidant Polymers: From Sustainable and Natural Monomers to Synthesis and Applications, Polymers 13(15) (2021).##[6] H. Soltani, A. Pardakhty, S. Ahmadzadeh, Determination of hydroquinone in food and pharmaceutical samples using a voltammetric based sensor employing NiO nanoparticle and ionic liquids, Journal of Molecular Liquids 219 (2016) 63- 67.##[7] K. Chetankumar, B.E.K. Swamy, T.S.S.K. Naik, A reliable electrochemical sensor for detection of catechol and hydroquinone at MgO/GO modified carbon paste electrode, Journal of Materials Science: Materials in Electronics 31(22) (2020) 19728-19740.##[8] T.S. Sunil Kumar Naik, B.E. Kumara Swamy, Modification of carbon paste electrode by electrochemical polymerization of neutral red and its catalytic capability towards the simultaneous determination of catechol and hydroquinone: A voltammetric study, Journal of Electroanalytical Chemistry 804 (2017) 78-86.##[9] K. Ahmad, P. Kumar, S.M. Mobin, Hydrothermally Grown SnO2 Flowers as Efficient Electrode Modifier for Simultaneous Detection of Catechol and Hydroquinone, Journal of The Electrochemical Society 166(15) (2019) B1577.##[10] K.V. Harisha, B.E. Kumara Swamy, E.E. Ebenso, Poly (glycine) modified carbon paste electrode for simultaneous determination of catechol and hydroquinone: A voltammetric study, Journal of Electroanalytical Chemistry 823 (2018) 730-736.##[11] S. Su, S. Chen, C. Fan, Recent advances in two-dimensional nanomaterials-based electrochemical sensors for environmental analysis, Green Energy and Environment 3(2) (2018) 97-106.##[12] D.M. de Oliveira, B.P.S. Pitanga, M.S. Grangeiro, R.M.F. Lima, M.F.D. Costa, S.L. Costa, J. Clarêncio, R.S. El-Bachá, Catechol cytotoxicity in vitro: Induction of glioblastoma cell death by apoptosis, Human and Experimental Toxicology 29(3) (2010) 199-212.##[13] H. Meskher, S.B. Belhaouari, K. Deshmukh, C.M. Hussain, F. Sharifianjazi, A Magnetite Composite of Molecularly Imprinted Polymer and Reduced Graphene Oxide for Sensitive and Selective Electrochemical Detection of Catechol in Water and Milk Samples: An Artificial Neural Network (ANN) Application, Journal of The Electrochemical Society 170(4) (2023) 047502.##[14] N. Ben Messaoud, A. Ait Lahcen, C. Dridi, A. Amine, Ultrasound assisted magnetic imprinted polymer combined sensor based on carbon black and gold nanoparticles for selective and sensitive electrochemical detection of Bisphenol A, Sensors and Actuators B: Chemical 276 (2018) 304-312.##[15] H. Meskher, H.C. Mustansar, A.K. Thakur, R. Sathyamurthy, I. Lynch, P. Singh, T.K. Han, R. Saidur, Recent trends in carbon nanotube (CNT)-based biosensors for the fast and sensitive detection of human viruses: a critical review, Nanoscale Advances 5(4) (2023) 992-1010.##[16] W. Long, Y. Xie, H. Shi, J. Ying, J. Yang, Y. Huang, H. Zhang, L. Fu, Preparation of nitrogen-doped hollow carbon spheres for sensitive catechol electrochemical sensing, Fullerenes, Nanotubes and Carbon Nanostructures 26(12) (2018) 856-862.##[17] S.C. Moldoveanu, M. Kiser, Gas chromatography/mass spectrometry versus liquid chromatography/fluorescence detection in the analysis of phenols in mainstream cigarette smoke, Journal of Chromatography A 1141(1) (2007) 90-97.##[18] L. Gámiz-Gracia, A.M. García-Campaña, J.F. Huertas-Pérez, F.J. Lara, Chemiluminescence detection in liquid chromatography: Applications to clinical, pharmaceutical, environmental and food analysis—A review, Analytica Chimica Acta 640(1) (2009) 7-28.##[19] M.F. Pistonesi, M.S. Di Nezio, M.E. Centurión, M.E. Palomeque, A.G. Lista, B.S. Fernández Band, Determination of phenol, resorcinol and hydroquinone in air samples by synchronous fluorescence using partial least-squares (PLS), Talanta 69(5) (2006) 1265-1268.##[20] J. Du, L. Ma, D. Shan, Y. Fan, L. Zhang, L. Wang, X. Lu, An electrochemical sensor based on the three-dimensional functionalized graphene for simultaneous determination of hydroquinone and catechol, Journal of Electroanalytical Chemistry 722-723 (2014) 38-45.##[21] J.-Q. Qiao, N. Yuan, C.-J. Tang, J. Yang, J. Zhou, H.-Z. Lian, L. Dong, Determination of catalytic oxidation products of phenol by RP-HPLC, Research on Chemical Intermediates 38(2) (2012) 549-558.##[22] G. Marrubini, E. Calleri, T. Coccini, A.F. Castoldi, L. Manzo, Direct Analysis of Phenol, Catechol and Hydroquinone in Human Urine by Coupled-Column HPLC with Fluorimetric Detection, Chromatographia 62(1) (2005) 25-31.##[23] H. Karimi-Maleh, F. Karimi, M. Alizadeh, A.L. Sanati, Electrochemical Sensors, a Bright Future in the Fabrication of Portable Kits in Analytical Systems, The Chemical Record 20(7) (2020) 682-692.##[24] W.E. Van der Linden, J.W. Dieker, Glassy carbon as electrode material in electro- analytical chemistry, Analytica Chimica Acta 119(1) (1980) 1-24.##[25] A.H. Esmaeilkhanian, F. Sharifianjazi, E. Ahmadi, A. Ijadi, H. Meskher, R. Zarei, M. Nili-Ahmadabadi, M. Irandoost, N. Karimi, A. Ghiasvand, Thermal barrier coating with improved durability: An overview of doped, nanostructured, multilayered, and gradient-structured zirconia-based thermal barrier coatings, Materials Today Communications 37 (2023) 107514.##[26] K.K. Masibi, O.E. Fayemi, A.S. Adekunle, A.M. Al-Mohaimeed, A.M. Fahim, B.B. Mamba, E.E. Ebenso, Electrochemical Detection of Endosulfan Using an AONP-PANI-SWCNT Modified Glassy Carbon Electrode, Materials 14(4) (2021).##[27] S.S. Ming, N.S.K. Gowthaman, H.N. Lim, P. Arul, E. Narayanamoorthi, I. Ibrahim, H. Jaafar, S.A. John, Aluminium MOF fabricated electrochemical sensor for the ultra-sensitive detection of hydroquinone in water samples, Journal of Electroanalytical Chemistry 883 (2021) 115067.##[28] H. Meskher, S.B. Belhaouari, F. Sharifianjazi, Mini review about metal organic framework (MOF)-based wearable sensors: Challenges and prospects, Heliyon 9(11) (2023) e21621.##[29] Y. Wang, X. Liu, S. Liu, Y. Zhang, F. Chang, Multilayered Chemically Modified Electrode Based on Carbon Nanotubes Conglutinated by Polydopamine: A New Strategy for the Electrochemical Signal Enhancement for the Determination of Catechol, Analytical Letters 53(7) (2020) 1061-1074.##[30] X. Huang, X. Deng, W. Qi, D. Wu, Simultaneous detection of hydroquinone and catechol using platinum nanoparticles decorated graphene/poly-cyclodextrin/ multiwalled carbon nanotubes (MWCNTs) nanocomposite based biosensor, Journal of Nanoscience and Nanotechnology 18(12) (2018) 8118-8123.##[31] H. Meskher, T. Ragdi, A.K. Thakur, S. Ha, I. Khelfaoui, R. Sathyamurthy, S.W. Sharshir, A.K. Pandey, R. Saidur, P. Singh, F. Sharifian jazi, I. Lynch, A Review on CNTs-Based Electrochemical Sensors and Biosensors: Unique Properties and Potential Applications, Critical Reviews in Analytical Chemistry 1-24.##[32] A. Akhoondi, M.Y. Nassar, B. Yuliarto, H. Meskher, Recent advances in synthesis of MXene-based electrodes for flexible all-solid-state supercapacitors, Synthesis and Sintering 3(3) (2023) 200-212.##[33] A. Ayub, Z.A. Raza, Arsenic removal approaches: A focus on chitosan biosorption to conserve the water sources, International Journal of Biological Macromolecules 192 (2021) 1196-1216.##[34] F. Garkani Nejad, S. Tajik, H. Beitollahi, I. Sheikhshoaie, Magnetic nanomaterials based electrochemical (bio)sensors for food analysis, Talanta 228 (2021) 122075.##[35] H. Truong, S. Lomnicki, B. Dellinger, Mechanisms of molecular product and persistent radical formation from the pyrolysis of hydroquinone, Chemosphere 71(1) (2008) 107-113.##[36] Z. Sun, X. Wang, C. Liu, G. Fang, L. Chu, C. Gu, J. Gao, Persistent Free Radicals from Low-Molecular-Weight Organic Compounds Enhance Cross-Coupling Reactions and Toxicity of Anthracene on Amorphous Silica Surfaces under Light, Environmental Science and Technology 55(6) (2021) 3716-3726.##[37] P. Nagaraja, R.A. Vasantha, K.R. Sunitha, A new sensitive and selective spectrophotometric method for the determination of catechol derivatives and its pharmaceutical preparations, Journal of Pharmaceutical and Biomedical Analysis 25(3) (2001) 417-424.##[38] R. Capasso, A. Evidente, L. Schivo, G. Orru, M.A. Marcialis, G. Cristinzio, Antibacterial polyphenols from olive oil mill waste waters, Journal of Applied Bacteriology 79(4) (1995) 393-398.##[39] R. Zhang, J. Wang, S. Milligan, Y. Yan, Microbial utilization of lignin-derived aromatics via a synthetic catechol meta-cleavage pathway, Green Chemistry 23(20) (2021) 8238-8250.##[40] E.L. Cavalieri, E.G. Rogan, Unbalanced metabolism of endogenous estrogens in the etiology and prevention of human cancer, The Journal of Steroid Biochemistry and Molecular Biology 125(3) (2011) 169-180.##[41] N. Schweigert, A.J.B. Zehnder, R.I.L. Eggen, Chemical properties of catechols and their molecular modes of toxic action in cells, from microorganisms to mammals, Environmental Microbiology 3(2) (2001) 81-91.##[42] J.D. Mold, M.P. Peyton, R.E. Means, T.B. Walker, Determination of catechol in cigarette smoke, Analyst 91(1080) (1966) 189-194.##[43] L. Zhao, B. Lv, H. Yuan, Z. Zhou, D. Xiao, A Sensitive Chemiluminescence Method for Determination of Hydroquinone and Catechol, Sensors 7(4) (2007) 578-588.##[44] X. Chen, X. Hu, Q. Lu, Y. Yang, S. Linghu, X. Zhang, Study on the differences in sludge toxicity and microbial community structure caused by catechol, resorcinol and hydroquinone with metagenomic analysis, Journal of Environmental Management 302 (2022) 114027.##[45] X. Wei, X. Chen, X. Hu, S. Linghu, H. Gu, Z. Chen, X. Zhang, Y. Yang, Deciphering the Changes of Sludge Toxicity and the Succession of Dominant Bacteria During the Process of Catechol Degradation by Acclimated Sludge, Waste and Biomass Valorization 13(10) (2022) 4285-4296.##[46] P. Alviz-Gazitua, R.E. Durán, F.A. Millacura, F. Cárdenas, L.A. Rojas, M. Seeger, Cupriavidus metallidurans CH34 Possesses Aromatic Catabolic Versatility and Degrades Benzene in the Presence of Mercury and Cadmium, Microorganisms 10(2) (2022).##[47] N. Schweigert, R.W. Hunziker, B.I. Escher, R.I.L. Eggen, Acute toxicity of (chloro-)catechols and (chloro-)catechol-copper combinations in Escherichia coli corresponds to their membrane toxicity in vitro, Environmental Toxicology and Chemistry 20(2) (2001) 239-247.##[48] A.J.S. Ahammad, T. Akter, A.A. Mamun, T. Islam, M.M. Hasan, M.A. Mamun, S. Faraezi, F.Z. Monira, J.K. Saha, Cost-Effective Electrochemical Sensor Based on Carbon Nanotube Modified-Pencil Electrode for the Simultaneous Determination of Hydroquinone and Catechol, Journal of The Electrochemical Society 165(9) (2018) B390.##[49] F.J. Enguita, A.L. Leitão, Hydroquinone: Environmental Pollution, Toxicity, and Microbial Answers, BioMed Research International 2013 (2013) 542168.##[50] P.J. Deisinger, Human exposure to naturally occurring hydroquinone, Journal of Toxicology and Environmental Health 47(1) (1996) 31-46.##[51] C. Sarkar, P.K. Mitra, S. Saha, C. Nayak, R. Chakraborty, Effect of Copper-Hydroquinone Complex on Oxidative Stress-Related Parameters in Human Erythrocytes (In Vitro), Toxicology Mechanisms and Methods 19(2) (2009) 86-93.##[52] P. Mandani, K. Desai, H. Highland, Cytotoxic Effects of Benzene Metabolites on Human Sperm Function: An In Vitro Study, ISRN Toxicology 2013 (2013) 397524.##[53] V.V. Subrahmanyam, P. Kolachana, M.T. Smith, Hydroxylation of phenol to hydroquinone catalyzed by a human myeloperoxidase-superoxide complex: possible implications in benzene-induced myelotoxicity, Free Radic Res Commun 15(5) (1991) 285-96.##[54] S. Suresh, V.C. Srivastava, I.M. Mishra, Adsorption of catechol, resorcinol, hydroquinone, and their derivatives: a review, International Journal of Energy and Environmental Engineering 3(1) (2012) 32.##[55] R. Guerra, Ecotoxicological and chemical evaluation of phenolic compounds in industrial effluents, Chemosphere 44(8) (2001) 1737-1747.##[56] K.L.E. Kaiser, V.S. Palabrica, Photobacterium phosphoreum Toxicity Data Index, Water Quality Research Journal 26(3) (1991) 361-431.##[57] H. Chen, J. Yao, F. Wang, Y. Zhou, K. Chen, R. Zhuang, M.M.F. Choi, G. Zaray, Toxicity of three phenolic compounds and their mixtures on the gram-positive bacteria Bacillus subtilis in the aquatic environment, Science of The Total Environment 408(5) (2010) 1043-1049.##[58] M. Bekmezci, E.E. Altuner, V. Erduran, R. Bayat, I. Isik, F. Şen, 1 - Fundamentals of electrochemistry, in: F. Şen (Ed.), Nanomaterials for Direct Alcohol Fuel Cells, Elsevier 2021, pp. 1-15.##[59] Y. Zhou, H. Yin, W.-W. Zhao, S. Ai, Electrochemical, electrochemiluminescent and photoelectrochemical bioanalysis of epigenetic modifiers: A comprehensive review, Coordination Chemistry Reviews 424 (2020) 213519.##[60] R. Ding, Y.H. Cheong, A. Ahamed, G. Lisak, Heavy Metals Detection with Paper-Based Electrochemical Sensors, Analytical Chemistry 93(4) (2021) 1880- 1888.##[61] S. Marinesco, Micro- and nano-electrodes for neurotransmitter monitoring, Current Opinion in Electrochemistry 29 (2021) 100746.##[62] Y. Liu, J. Du, M. Wang, J. Zhang, C. Liu, X. Li, Recent Progress in Quantitatively Monitoring Vesicular Neurotransmitter Release and Storage With Micro/ Nanoelectrodes, Frontiers in Chemistry 8 (2021).##[63] A. Sudhakar, S.K. Chakraborty, N.K. Mahanti, C. Varghese, Advanced techniques in edible oil authentication: A systematic review and critical analysis, Critical Reviews in Food Science and Nutrition 63(7) (2023) 873-901.##[64] M. Schledorn, A.A. Malär, A. Torosyan, S. Penzel, D. Klose, A. Oss, M.-L. Org, S. Wang, L. Lecoq, R. Cadalbert, A. Samoson, A. Böckmann, B.H. Meier, Protein NMR Spectroscopy at 150 kHz Magic-Angle Spinning Continues To Improve Resolution and Mass Sensitivity, ChemBioChem 21(17) (2020) 2540-2548.##[65] Z. Jahromi, E. Mirzaei, A. Savardashtaki, M. Afzali, Z. Afzali, A rapid and selective electrochemical sensor based on electrospun carbon nanofibers for tramadol detection, Microchemical Journal 157 (2020) 104942.##[66] S. Motia, B. Bouchikhi, E. Llobet, N. El Bari, Synthesis and characterization of a highly sensitive and selective electrochemical sensor based on molecularly imprinted polymer with gold nanoparticles modified screen-printed electrode for glycerol determination in wastewater, Talanta 216 (2020) 120953.##[67] T. Ören Varol, O. Hakli, U. Anik, Graphene oxide–porphyrin composite nanostructure included electrochemical sensor for catechol detection, New Journal of Chemistry 45(3) (2021) 1734-1742.##[68] T.A. Saleh, Nanomaterials: Classification, properties, and environmental toxicities, Environmental Technology and Innovation 20 (2020) 101067.##[69] H. Huang, Y. Chen, Z. Chen, J. Chen, Y. Hu, J.-J. Zhu, Electrochemical sensor based on Ce-MOF/carbon nanotube composite for the simultaneous discrimination of hydroquinone and catechol, Journal of Hazardous Materials 416 (2021) 125895.##[70] H.-W. Wang, C. Bringans, A.J.R. Hickey, J.A. Windsor, P.A. Kilmartin, A.R.J. Phillips, Cyclic Voltammetry in Biological Samples: A Systematic Review of Methods and Techniques Applicable to Clinical Settings, Signals 2(1) (2021) 138-158.##[71] C. Francesco, Differential Pulse Voltammetry: Evolution of an In Vivo Methodology and New Chemical Entries, A Short Review, Journal of New Developments in Chemistry 2(4) (2020) 20-28.##[72] H.H. Çelik, S. Özcan, A.D. Mülazımoğlu, E. Yılmaz, B. Mercimek, A. Çukurovalı, İ. Yılmaz, A.O. Solak, İ.E. Mülazımoğlu, The synthesis of a novel DDPHC diazonium salt: Investigation of its usability in the determination of phenol and chlorophenols using CV, SWV and DPV techniques, Inorganic Chemistry Communications 116 (2020) 107893.##[73] K. Dujearic-Stephane, M. Gupta, A. Kumar, V. Sharma, S. Pandit, P. Bocchetta, Y. Kumar, The Effect of Modifications of Activated Carbon Materials on the Capacitive Performance: Surface, Microstructure, and Wettability, Journal of Composites Science 5(3) (2021).##[74] Â. Vilas-Boas, P. Valderrama, N. Fontes, D. Geraldo, F. Bento, Evaluation of total polyphenol content of wines by means of voltammetric techniques: Cyclic voltammetry vs differential pulse voltammetry, Food Chemistry 276 (2019) 719-725.##[75] M. Lovrić, Square-Wave Voltammetry, in: F. Scholz, A.M. Bond, R.G. Compton, D.A. Fiedler, G. Inzelt, H. Kahlert, Š. Komorsky-Lovrić, H. Lohse, M. Lovrić, F. Marken, A. Neudeck, U. Retter, F. Scholz, Z. Stojek (Eds.), Electroanalytical Methods: Guide to Experiments and Applications, Springer Berlin Heidelberg, Berlin, Heidelberg, 2010, pp. 121-145.##[76] A.A. Avan, H. Filik, Simultaneous electrochemical sensing of dihydroxybenzene isomers at multi-walled carbon nanotubes aerogel/gold nanoparticles modified graphene screen-printed electrode, Journal of Electroanalytical Chemistry 878 (2020) 114682.##[77] S. Sawan, R. Maalouf, A. Errachid, N. Jaffrezic-Renault, Metal and metal oxide nanoparticles in the voltammetric detection of heavy metals: A review, TrAC Trends in Analytical Chemistry 131 (2020) 116014.##[78] W. Choi, H.-C. Shin, J.M. Kim, J.-Y. Choi, W.-S. Yoon, Modeling and Applications of Electrochemical Impedance Spectroscopy (EIS) for Lithium-ion Batteries, J. Electrochem. Sci. Technol 11(1) (2020) 1-13.##[79] J. Yin, L. Qi, H. Wang, Antifreezing Ag/AgCl reference electrodes: Fabrication and applications, Journal of Electroanalytical Chemistry 666 (2012) 25-31.##[80] J. Ghilane, P. Hapiot, A.J. Bard, Metal/Polypyrrole Quasi-Reference Electrode for Voltammetry in Nonaqueous and Aqueous Solutions, Analytical Chemistry 78(19) (2006) 6868-6872.##[81] B. Pejcic, P. Eadington, A. Ross, Environmental Monitoring of Hydrocarbons: A Chemical Sensor Perspective, Environmental Science and Technology 41(18) (2007) 6333-6342.##[82] N. Hashemi Goradel, H. Mirzaei, A. Sahebkar, M. Poursadeghiyan, A. Masoudifar, Z.V. Malekshahi, B. Negahdari, Biosensors for the Detection of Environmental and Urban Pollutions, Journal of Cellular Biochemistry 119(1) (2018) 207-212.##[83] B. Purohit, P.R. Vernekar, N.P. Shetti, P. Chandra, Biosensor nanoengineering: Design, operation, and implementation for biomolecular analysis, Sensors International 1 (2020) 100040.##[84] D. Wang, L. Wang, Z. Lou, Y. Zheng, K. Wang, L. Zhao, W. Han, K. Jiang, G. Shen, Biomimetic, biocompatible and robust silk Fibroin-MXene film with stable 3D cross-link structure for flexible pressure sensors, Nano Energy 78 (2020) 105252.##[85] Q. Zhou, M. Guo, S. Wu, D. Fornara, B. Sarkar, L. Sun, H. Wang, Electrochemical sensor based on corncob biochar layer supported chitosan-MIPs for determination of dibutyl phthalate (DBP), Journal of Electroanalytical Chemistry 897 (2021) 115549.##[86] C. Ye, X. Chen, D. Zhang, J. Xu, H. Xi, T. Wu, D. Deng, C. Xiong, J. Zhang, G. Huang, Study on the properties and reaction mechanism of polypyrrole@norfloxacin molecularly imprinted electrochemical sensor based on three-dimensional CoFe-MOFs/AuNPs, Electrochimica Acta 379 (2021) 138174.##[87] Z. Bai, N. Gao, H. Xu, X. Wang, L. Tan, H. Pang, H. Ma, Construction of an ultra-sensitive electrochemical sensor based on polyoxometalates decorated with CNTs and AuCo nanoparticles for the voltammetric simultaneous determination of dopamine and uric acid, Microchimica Acta 187(8) (2020) 483.##[88] G. Fadillah, W.P. Wicaksono, I. Fatimah, T.A. Saleh, A sensitive electrochemical sensor based on functionalized graphene oxide/SnO2 for the determination of eugenol, Microchemical Journal 159 (2020) 105353.##[89] J. Upan, N. Youngvises, A. Tuantranont, C. Karuwan, P. Banet, P.-H. Aubert, J. Jakmunee, A simple label-free electrochemical sensor for sensitive detection of alpha-fetoprotein based on specific aptamer immobilized platinum nanoparticles/ carboxylated-graphene oxide, Scientific Reports 11(1) (2021) 13969.##[90] E. Sehit, Z. Altintas, Significance of nanomaterials in electrochemical glucose sensors: An updated review (2016-2020), Biosensors and Bioelectronics 159 (2020) 112165.##[91] H. Filik, A.A. Avan, Review on applications of carbon nanomaterials for simultaneous electrochemical sensing of environmental contaminant dihydroxybenzene isomers, Arabian Journal of Chemistry 13(7) (2020) 6092-6105.##[92] D.-L. Huang, J. Wang, F. Cheng, A. Ali, H.-S. Guo, X. Ying, L.-P. Si, H.- Y. Liu, Synergistic effect of a cobalt fluoroporphyrin and graphene oxide on the simultaneous voltammetric determination of catechol and hydroquinone, Microchimica Acta 186(6) (2019) 381.##[93] S. Guo, C. Zhang, M. Yang, Y. Zhou, C. Bi, Q. Lv, N. Ma, A facile and sensitive electrochemical sensor for non-enzymatic glucose detection based on three-dimensional flexible polyurethane sponge decorated with nickel hydroxide, Analytica Chimica Acta 1109 (2020) 130-139.##[94] C. Malitesta, F. Palmisano, L. Torsi, P.G. Zambonin, Glucose fast-response amperometric sensor based on glucose oxidase immobilized in an electropolymerized poly(o-phenylenediamine) film, Analytical Chemistry 62(24) (1990) 2735- 2740.##[95] A. Bratov, N. Abramova, A. Ipatov, Recent trends in potentiometric sensor arrays—A review, Analytica Chimica Acta 678(2) (2010) 149-159.##[96] Y. He, Rapid thermal conductivity measurement with a hot disk sensor: Part 1. Theoretical considerations, Thermochimica Acta 436(1) (2005) 122-129.##[97] L.R. Jordan, P.C. Hauser, G.A. Dawson, Amperometric Sensor for Monitoring Ethylene, Analytical Chemistry 69(4) (1997) 558-562.##[98] M. Stoytcheva, R. Zlatev, Z. Velkova, B. Valdez, M. Ovalle, Analytical characteristics of electrochemical biosensors, Portugaliae Electrochimica Acta 27(3) (2009) 353-362.##[99] E. Desimoni, B. Brunetti, Presenting Analytical Performances of Electrochemical Sensors. Some Suggestions, Electroanalysis 25(7) (2013) 1645-1651.##[100] J. Leuermann, A. Fernández-Gavela, A. Torres-Cubillo, S. Postigo, A. Sánchez-Postigo, L.M. Lechuga, R. Halir, Í. Molina-Fernández, Optimizing the Limit of Detection of Waveguide-Based Interferometric Biosensor Devices, Sensors 19(17) (2019).##[101] G. Korotcenkov, B.K. Cho, Engineering approaches for the improvement of conductometric gas sensor parameters: Part 1. Improvement of sensor sensitivity and selectivity (short survey), Sensors and Actuators B: Chemical 188 (2013) 709-728.##[102] L. Zipser, Selectivity of sensor systems, Sensors and Actuators A: Physical 37-38 (1993) 286-289.##[103] L. Yuan, L. Jiang, T. Hui, L. Jie, X. Bingbin, Y. Feng, L. Yingchun, Fabrication of highly sensitive and selective electrochemical sensor by using optimized molecularly imprinted polymers on multi-walled carbon nanotubes for metronidazole measurement, Sensors and Actuators B: Chemical 206 (2015) 647-652.##[104] M. Bilgi, E.M. Sahin, E. Ayranci, Sensor and biosensor application of a new redox mediator: Rosmarinic acid modified screen-printed carbon electrode for electrochemical determination of NADH and ethanol, Journal of Electroanalytical Chemistry 813 (2018) 67-74.##[105] Y. Wee, S. Park, Y.H. Kwon, Y. Ju, K.-M. Yeon, J. Kim, Tyrosinase-immobilized CNT based biosensor for highly-sensitive detection of phenolic compounds, Biosensors and Bioelectronics 132 (2019) 279-285.##[106] T.D. Tran, P.T. Nguyen, T.N. Le, M.I. Kim, DNA-copper hybrid nanoflowers as efficient laccase mimics for colorimetric detection of phenolic compounds in paper microfluidic devices, Biosensors and Bioelectronics 182 (2021) 113187.##[107] B. Kapan, S. Kurbanoglu, E.N. Esenturk, S. Soylemez, L. Toppare, Electrochemical catechol biosensor based on β-cyclodextrin capped gold nanoparticles and inhibition effect of ibuprofen, Process Biochemistry 108 (2021) 80-89.##[108] S.G. Chavan, A.K. Yagati, H.T. Kim, E. Jin, S.R. Park, D.V. Patil, M.-H. Lee, Dimeric-serotonin bivalent ligands induced gold nanoparticle aggregation for highly sensitive and selective serotonin biosensor, Biosensors and Bioelectronics 191 (2021) 113447.##[109] T. Hyun Chung, M.N.A. Meshref, B. Ranjan Dhar, A review and roadmap for developing microbial electrochemical cell-based biosensors for recalcitrant environmental contaminants, emphasis on aromatic compounds, Chemical Engineering Journal 424 (2021) 130245.##[110] D.R. Thévenot, K. Toth, R.A. Durst, G.S. Wilson, Electrochemical biosensors: recommended definitions and classification*, Analytical Letters 34(5) (2001) 635-659.##[111] D.S. Silvester, Recent advances in the use of ionic liquids for electrochemical sensing, Analyst 136(23) (2011) 4871-4882.##[112] F. Deng, X.-B. Luo, L. Ding, S.-L. Luo, 5 - Application of Nanomaterials and Nanotechnology in the Reutilization of Metal Ion From Wastewater, in: X. Luo, F. Deng (Eds.), Nanomaterials for the Removal of Pollutants and Resource Reutilization, Elsevier 2019, pp. 149-178.##[113] M. Nasrollahzadeh, M. Sajjadi, G.J. Soufi, S. Iravani, R.S. Varma, Nanomaterials and Nanotechnology-Associated Innovations against Viral Infections with a Focus on Coronaviruses, Nanomaterials 10(6) (2020).##[114] E. Inshakova, A. Inshakova, Nanomaterials and nanotechnology: prospects for technological re-equipment in the power engineering industry, IOP Conference Series: Materials Science and Engineering 709(3) (2020) 033020.##[115] K. Pathakoti, M. Manubolu, H.-M. Hwang, Nanostructures: Current uses and future applications in food science, Journal of Food and Drug Analysis 25(2) (2017) 245-253.##[116] M. Kulkarni, A. Mazare, E. Gongadze, Š. Perutkova, V. Kralj-Iglič, I. Milošev, P. Schmuki, A. Iglič, M. Mozetič, Titanium nanostructures for biomedical applications, Nanotechnology 26(6) (2015) 062002.##[117] H.N. Abdelhamid, G. Badr, Nanobiotechnology as a platform for the diagnosis of COVID-19: a review, Nanotechnology for Environmental Engineering 6(1) (2021) 19.##[118] Z. Zhu, L. Garcia-Gancedo, A.J. Flewitt, H. Xie, F. Moussy, W.I. Milne, A Critical Review of Glucose Biosensors Based on Carbon Nanomaterials: Carbon Nanotubes and Graphene, Sensors 12(5) (2012) 5996-6022.##[119] F.N. Al-Rowaili, A. Jamal, M.S. Ba Shammakh, A. Rana, A Review on Recent Advances for Electrochemical Reduction of Carbon Dioxide to Methanol Using Metal–Organic Framework (MOF) and Non-MOF Catalysts: Challenges and Future Prospects, ACS Sustainable Chemistry and Engineering 6(12) (2018) 15895-15914.##[120] E. Roy, S. Patra, A. Tiwari, R. Madhuri, P.K. Sharma, Introduction of selectivity and specificity to graphene using an inimitable combination of molecular imprinting and nanotechnology, Biosensors and Bioelectronics 89 (2017) 234-248.##[121] X. Chen, Y. Liang, N. Tang, C. Li, Y. Zhang, F. Xu, G. Shi, M. Zhang, Ultrasensitive sensing urinary cystatin C via an interface-engineered graphene extended-gate field-effect transistor for non-invasive diagnosis of chronic kidney disease, Biosensors and Bioelectronics 249 (2024) 116016.##[122] N. Sinha, D. Roy Mahapatra, Y. Sun, J.T.W. Yeow, R.V.N. Melnik, D.A. Jaffray, Electromechanical interactions in a carbon nanotube based thin film field emitting diode, Nanotechnology 19(2) (2008) 025701.##[123] J.-H. Lee, Y.K. Jeong, J.A. Peters, G.-H. Nam, S. Jin, J.-H. Kim, In Situ Fabrication of Nano Transistors by Selective Deposition of a Gate Dielectric around Carbon Nanotubes, ACS Applied Materials and Interfaces 7(43) (2015) 24094- 24102.##[124] D. Ju, Y. Zhang, R. Li, S. Liu, L. Li, H. Chen, Mechanism-Independent Manipulation of Single-Wall Carbon Nanotubes with Atomic Force Microscopy Tip, Nanomaterials 10(8) (2020).##[125] K. Lota, I. Acznik, A. Sierczynska, G. Lota, Enhancing the performance of polypyrrole composites as electrode materials for supercapacitors by carbon nanotubes additives, Journal of Applied Polymer Science 137(28) (2020) 48867.##[126] O. Farshad, R. Heidari, M.J. Zamiri, S. Retana-Márquez, M. Khalili, M. Ebrahimi, A. Jamshidzadeh, M.M. Ommati, Spermatotoxic Effects of Single-Walled and Multi-Walled Carbon Nanotubes on Male Mice, Frontiers in Veterinary Science 7 (2020).##[127] A. Hussain, E.-X. Ding, B. McLean, K. Mustonen, S. Ahmad, M. Tavakkoli, A.J. Page, Q. Zhang, J. Kotakoski, E.I. Kauppinen, Scalable growth of single-walled carbon nanotubes with a highly uniform structure, Nanoscale 12(23) (2020) 12263-12267.##[128] S.O. Mirabootalebi, A new method for preparing buckypaper by pressing a mixture of multi-walled carbon nanotubes and amorphous carbon, Advanced Composites and Hybrid Materials 3(3) (2020) 336-343.##[129] B. Ribeiro, E.C. Botelho, M.L. Costa, C.F. Bandeira, Carbon nanotube buckypaper reinforced polymer composites: a review, Polímeros 27 (2017) 247- 255.##[130] M.R. Watt, R.A. Gerhardt, Factors that Affect Network Formation in Carbon Nanotube Composites and their Resultant Electrical Properties, Journal of Composites Science 4(3) (2020).##[131] S. Fu, X. Chen, P. Liu, Preparation of CNTs/Cu composites with good electrical conductivity and excellent mechanical properties, Materials Science and Engineering: A 771 (2020) 138656.##[132] A. Kumar, K. Sharma, A.R. Dixit, A review on the mechanical properties of polymer composites reinforced by carbon nanotubes and graphene, Carbon Letters 31(2) (2021) 149-165.##[133] S.K. Soni, B. Thomas, V.R. Kar, A Comprehensive Review on CNTs and CNT-Reinforced Composites: Syntheses, Characteristics and Applications, Materials Today Communications 25 (2020) 101546.##[134] C. Guo, X. Luo, W.A. Shah, J.K. Li, B. Huang, M.A. Umer, Y.Q. Yang, Mechanical and thermal properties of multiwalled carbon-nanotube-reinforced Al2O3 nanocomposites, Ceramics International 46(11, Part A) (2020) 17449-17460.##[135] R. Kuchi, H.M. Nguyen, V. Dongquoc, P.C. Van, H. Ahn, D. Duong Viet, D. Kim, D. Kim, J.-R. Jeong, Optimization of FeNi/SWCNT composites by a simple co-arc discharge process to improve microwave absorption performance, Journal of Alloys and Compounds 852 (2021) 156712.##[136] S.K. Chaudhary, K.K. Singh, Complex Phenomenal Growth of Multi-walled Carbon Nanotubes in Conventional Arc Discharge Process, Transactions of the Indian Institute of Metals 74(8) (2021) 2043-2048.##[137] F.S. Alamro, A.M. Mostafa, K.A. Abu Al-Ola, H.A. Ahmed, A. Toghan, Synthesis of Ag Nanoparticles-Decorated CNTs via Laser Ablation Method for the Enhancement the Photocatalytic Removal of Naphthalene from Water, Nanomaterials 11(8) (2021).##[138] E.A. Mwafy, Eco-friendly approach for the synthesis of MWCNTs from waste tires via chemical vapor deposition, Environmental Nanotechnology, Monitoring and Management 14 (2020) 100342.##[139] Y. Tian, X.-L. Wang, J. Luan, H.-Y. Lin, Z.-H. Chang, X. Wang, G.-C. Liu, CNTs synthesized with polyoxometalate-based metal–organic compounds as catalyst precursors via the CVD method and their adsorption performance towards organic dyes, New Journal of Chemistry 44(14) (2020) 5508-5512.##[140] H. Sabeeh, M. Aadil, S. Zulfiqar, I. Ayeman, I. Shakir, P.O. Agboola, S. Haider, M.F. Warsi, Self-Supporting Design of NiS/CNTs Nanohybrid for Advanced Electrochemical Energy Storage Applications, Journal of Cluster Science 33(5) (2022) 2113-2121.##[141] X. Jiaojiao, W. Pengyun, Z. Bin, A.I. Onyinye, Enhancing electrochemical sensing for catechol by biomimetic oxidase covalently functionalized graphene oxide, Bioprocess and Biosystems Engineering 44(2) (2021) 343-353.##[142] M. Gandhi, D. Rajagopal, A. Senthil Kumar, Facile Electrochemical Demethylation of 2-Methoxyphenol to Surface-Confined Catechol on the MWCNT and Its Efficient Electrocatalytic Hydrazine Oxidation and Sensing Applications, ACS Omega 5(26) (2020) 16208-16219.##[143] Y. Song, M. Zhao, X. Wang, H. Qu, Y. Liu, S. Chen, Simultaneous electrochemical determination of catechol and hydroquinone in seawater using Co3O4/ MWCNTs/GCE, Materials Chemistry and Physics 234 (2019) 217-223.##[144] S. Yang, M. Yang, Q. Liu, X. Wang, H. Fa, Y. Wang, C. Hou, An Ultrasensitive Electrochemical Sensor Based on Multiwalled Carbon Nanotube@Reduced Graphene Oxide Nanoribbon Composite for Simultaneous Determination of Hydroquinone, Catechol and Resorcinol, Journal of The Electrochemical Society 166(6) (2019) B547.##[145] C. Chen, P. Zhao, C. Li, Y. Xie, J. Fei, Highly Sensitive Temperature-responsive Sensor Based on PS-PDEA-PS/C60-MWCNTs for Reversible Switch Detection of Catechol, Electroanalysis 31(5) (2019) 913-921.##[146] L.A. Alshahrani, X. Li, H. Luo, L. Yang, M. Wang, S. Yan, P. Liu, Y. Yang, Q. Li, The Simultaneous Electrochemical Detection of Catechol and Hydroquinone with [Cu(Sal-β-Ala)(3,5-DMPz)2]/SWCNTs/GCE, Sensors 14(12) (2014) 22274-22284.##[147] W. Zhang, C. Chai, Q. Fan, Y. Song, Y. Yang, A novel two-dimensional spsp2-sp3 hybridized carbon nanostructure with a negative in-plane Poisson ratio and high electron mobility, Computational Materials Science 185 (2020) 109904.##[148] L. Chen, Y. Tang, K. Wang, C. Liu, S. Luo, Direct electrodeposition of reduced graphene oxide on glassy carbon electrode and its electrochemical application, Electrochemistry Communications 13(2) (2011) 133-137.##[149] Ö. Güler, N. Bağcı, A short review on mechanical properties of graphene reinforced metal matrix composites, Journal of Materials Research and Technology 9(3) (2020) 6808-6833.##[150] Z. Said, M.A. Abdelkareem, H. Rezk, A.M. Nassef, H.Z. Atwany, Stability, thermophysical and electrical properties of synthesized carbon nanofiber and reduced-graphene oxide-based nanofluids and their hybrid along with fuzzy modeling approach, Powder Technology 364 (2020) 795-809.##[151] H.-D. Huang, P.-G. Ren, J.-Z. Xu, L. Xu, G.-J. Zhong, B.S. Hsiao, Z.-M. Li, Improved barrier properties of poly(lactic acid) with randomly dispersed graphene oxide nanosheets, Journal of Membrane Science 464 (2014) 110-118.##[152] X. Niu, X. Yang, Z. Mo, J. Wang, Z. Pan, Z. Liu, C. Shuai, G. Liu, N. Liu, R. Guo, Fabrication of an electrochemical chiral sensor via an integrated polysaccharides/3D nitrogen-doped graphene-CNT frame, Bioelectrochemistry 131 (2020) 107396.##[153] N. Ruecha, N. Rodthongkum, D.M. Cate, J. Volckens, O. Chailapakul, C.S. Henry, Sensitive electrochemical sensor using a graphene–polyaniline nanocomposite for simultaneous detection of Zn(II), Cd(II), and Pb(II), Analytica Chimica Acta 874 (2015) 40-48.##[154] S. Zhang, B.-Q. Li, J.-B. Zheng, An electrochemical sensor for the sensitive determination of nitrites based on Pt–PANI–graphene nanocomposites, Analytical Methods 7(19) (2015) 8366-8372.##[155] S. Sajjad, S.A. Khan Leghari, A. Iqbal, Study of Graphene Oxide Structural Features for Catalytic, Antibacterial, Gas Sensing, and Metals Decontamination Environmental Applications, ACS Applied Materials and Interfaces 9(50) (2017) 43393-43414.##[156] M. Tahriri, M. Del Monico, A. Moghanian, M. Tavakkoli Yaraki, R. Torres, A. Yadegari, L. Tayebi, Graphene and its derivatives: Opportunities and challenges in dentistry, Materials Science and Engineering: C 102 (2019) 171-185.##[157] B.A. Al Jahdaly, M.F. Elsadek, B.M. Ahmed, M.F. Farahat, M.M. Taher, A.M. Khalil, Outstanding Graphene Quantum Dots from Carbon Source for Biomedical and Corrosion Inhibition Applications: A Review, Sustainability 13(4) (2021).##[158] H. Yan, Y. Lin, H. Wu, W. Zhang, Z. Sun, H. Cheng, W. Liu, C. Wang, J. Li, X. Huang, T. Yao, J. Yang, S. Wei, J. Lu, Bottom-up precise synthesis of stable platinum dimers on graphene, Nature Communications 8(1) (2017) 1070.##[159] T. Wang, Z. Wang, R.V. Salvatierra, E. McHugh, J.M. Tour, Top-down synthesis of graphene nanoribbons using different sources of carbon nanotubes, Carbon 158 (2020) 615-623.##[160] W. Chen, G. Lv, W. Hu, D. Li, S. Chen, Z. Dai, Synthesis and applications of graphene quantum dots: a review, Nanotechnology Reviews 7(2) (2018) 157-185.##[161] J. Cai, P. Ruffieux, R. Jaafar, M. Bieri, T. Braun, S. Blankenburg, M. Muoth, A.P. Seitsonen, M. Saleh, X. Feng, K. Müllen, R. Fasel, Atomically precise bottom-up fabrication of graphene nanoribbons, Nature 466(7305) (2010) 470-473.##[162] P.P. Brisebois, M. Siaj, Harvesting graphene oxide – years 1859 to 2019: a review of its structure, synthesis, properties and exfoliation, Journal of Materials Chemistry C 8(5) (2020) 1517-1547.##[163] A. Adetayo, D. Runsewe, Synthesis and Fabrication of Graphene and Graphene Oxide: A Review, Open Journal of Composite Materials Vol.09No.02 (2019) 23.##[164] N.I. Zaaba, K.L. Foo, U. Hashim, S.J. Tan, W.-W. Liu, C.H. Voon, Synthesis of Graphene Oxide using Modified Hummers Method: Solvent Influence, Procedia Engineering 184 (2017) 469-477.##[165] J. Chen, B. Yao, C. Li, G. Shi, An improved Hummers method for eco-friendly synthesis of graphene oxide, Carbon 64 (2013) 225-229.##[166] S.Y. Toh, K.S. Loh, S.K. Kamarudin, W.R.W. Daud, Graphene production via electrochemical reduction of graphene oxide: Synthesis and characterisation, Chemical Engineering Journal 251 (2014) 422-434.##[167] V. Agarwal, P.B. Zetterlund, Strategies for reduction of graphene oxide – A comprehensive review, Chemical Engineering Journal 405 (2021) 127018.##[168] S.N. Alam, N. Sharma, L. Kumar, Synthesis of graphene oxide (GO) by modified hummers method and its thermal reduction to obtain reduced graphene oxide (rGO), Graphene 6(1) (2017) 1-18.##[169] B. Patella, M. Buscetta, S. Di Vincenzo, M. Ferraro, G. Aiello, C. Sunseri, E. Pace, R. Inguanta, C. Cipollina, Electrochemical sensor based on rGO/Au nanoparticles for monitoring H2O2 released by human macrophages, Sensors and Actuators B: Chemical 327 (2021) 128901.##[170] T.-Y. Huang, J.-H. Huang, H.-Y. Wei, K.-C. Ho, C.-W. Chu, rGO/SWCNT composites as novel electrode materials for electrochemical biosensing, Biosensors and Bioelectronics 43 (2013) 173-179.##[171] Y.H. Huang, J.H. Chen, X. Sun, Z.B. Su, H.T. Xing, S.R. Hu, W. Weng, H.X. Guo, W.B. Wu, Y.S. He, One-pot hydrothermal synthesis carbon nanocages-reduced graphene oxide composites for simultaneous electrochemical detection of catechol and hydroquinone, Sensors and Actuators B: Chemical 212 (2015) 165- 173.##[172] Y. Chen, X. Liu, S. Zhang, L. Yang, M. Liu, Y. Zhang, S. Yao, Ultrasensitive and simultaneous detection of hydroquinone, catechol and resorcinol based on the electrochemical co-reduction prepared Au-Pd nanoflower/reduced graphene oxide nanocomposite, Electrochimica Acta 231 (2017) 677-685.##[173] H. Zhang, X. Bo, L. Guo, Electrochemical preparation of porous graphene and its electrochemical application in the simultaneous determination of hydroquinone, catechol, and resorcinol, Sensors and Actuators B: Chemical 220 (2015) 919-926.##[174] L.A. Goulart, R. Gonçalves, A.A. Correa, E.C. Pereira, L.H. Mascaro, Synergic effect of silver nanoparticles and carbon nanotubes on the simultaneous voltammetric determination of hydroquinone, catechol, bisphenol A and phenol, Microchimica Acta 185(1) (2017) 12.##[175] H. Yin, Q. Zhang, Y. Zhou, Q. Ma, T. liu, L. Zhu, S. Ai, Electrochemical behavior of catechol, resorcinol and hydroquinone at graphene–chitosan composite film modified glassy carbon electrode and their simultaneous determination in water samples, Electrochimica Acta 56(6) (2011) 2748-2753.##[176] W. Zhang, C. Chai, Q. Fan, Y. Song, Y. Yang, PBCF-Graphene: A 2D Sp2 Hybridized Honeycomb Carbon Allotrope with a Direct Band Gap, ChemNanoMat 6(1) (2020) 139-147.##[177] F. Hu, S. Chen, C. Wang, R. Yuan, D. Yuan, C. Wang, Study on the application of reduced graphene oxide and multiwall carbon nanotubes hybrid materials for simultaneous determination of catechol, hydroquinone, p-cresol and nitrite, Analytica Chimica Acta 724 (2012) 40-46.##[178] F.-Y. Kong, R.-F. Li, L. Yao, Z.-X. Wang, H.-Y. Li, W.-X. Lv, W. Wang, Voltammetric simultaneous determination of catechol and hydroquinone using a glassy carbon electrode modified with a ternary hybrid material composed of reduced graphene oxide, magnetite nanoparticles and gold nanoparticles, Microchimica Acta 186(3) (2019) 177.##[179] H. Sohrabi, O. Arbabzadeh, M. Falaki, M.R. Majidi, N. Han, Y. Yoon, A. Khataee, Electrochemical layered double hydroxide (LDH)-based biosensors for pesticides detection in food and environment samples: A review of status and prospects, Food and Chemical Toxicology 164 (2022) 113010.##[180] C. Zhang, X. Liang, Y. Lu, H. Li, X. Xu, Performance of CuAl-LDH/Gr Nanocomposite-Based Electrochemical Sensor with Regard to Trace Glyphosate Detection in Water, Sensors 20(15) (2020).##[181] M. Sajid, C. Basheer, Layered double hydroxides: Emerging sorbent materials for analytical extractions, TrAC Trends in Analytical Chemistry 75 (2016) 174-182.##[182] S. He, Z. An, M. Wei, D.G. Evans, X. Duan, Layered double hydroxide-based catalysts: nanostructure design and catalytic performance, Chemical Communications 49(53) (2013) 5912-5920.##[183] E.N. Kalali, X. Wang, D.-Y. Wang, Functionalized layered double hydroxide-based epoxy nanocomposites with improved flame retardancy and mechanical properties, Journal of Materials Chemistry A 3(13) (2015) 6819-6826.##[184] I. Nicotera, K. Angjeli, L. Coppola, A. Enotiadis, R. Pedicini, A. Carbone, D. Gournis, Composite polymer electrolyte membranes based on Mg–Al layered double hydroxide (LDH) platelets for H2/air-fed fuel cells, Solid State Ionics 276 (2015) 40-46.##[185] L. Li, W. Gu, J. Chen, W. Chen, Z.P. Xu, Co-delivery of siRNAs and anti-cancer drugs using layered double hydroxide nanoparticles, Biomaterials 35(10) (2014) 3331-3339.##[186] C. Li, M. Wei, D.G. Evans, X. Duan, Layered Double Hydroxide-based Nanomaterials as Highly Efficient Catalysts and Adsorbents, Small 10(22) (2014) 4469-4486.##[187] D. Chaillot, S. Bennici, J. Brendlé, Layered double hydroxides and LDH-derived materials in chosen environmental applications: a review, Environmental Science and Pollution Research 28(19) (2021) 24375-24405.##[188] A. Inayat, M. Klumpp, W. Schwieger, The urea method for the direct synthesis of ZnAl layered double hydroxides with nitrate as the interlayer anion, Applied Clay Science 51(4) (2011) 452-459.##[189] R.-X. Xu, X.-Y. Yu, C. Gao, J.-H. Liu, R.G. Compton, X.-J. Huang, Enhancing selectivity in stripping voltammetry by different adsorption behaviors: the use of nanostructured Mg–Al-layered double hydroxides to detect Cd(ii), Analyst 138(6) (2013) 1812-1818.##[190] X. Kong, X. Rao, J. Han, M. Wei, X. Duan, Layer-by-layer assembly of bi-protein/layered double hydroxide ultrathin film and its electrocatalytic behavior for catechol, Biosensors and Bioelectronics 26(2) (2010) 549-554.##[191] X. Chen, C. Fu, Y. Wang, W. Yang, D.G. Evans, Direct electrochemistry and electrocatalysis based on a film of horseradish peroxidase intercalated into Ni–Al layered double hydroxide nanosheets, Biosensors and Bioelectronics 24(3) (2008) 356-361.##[192] K.-H. Goh, T.-T. Lim, Z. Dong, Application of layered double hydroxides for removal of oxyanions: A review, Water Research 42(6) (2008) 1343-1368.##[193] F. Yang, J. Chu, Y. Cheng, J. Gong, X. Wang, S. Xiong, Hydrothermal Synthesis of NiCo-layered Double Hydroxide Nanosheets Decorated on Biomass Carbon Skeleton for High Performance Supercapacitor, Chemical Research in Chinese Universities 37(3) (2021) 772-777.##[194] -. Nikhil, -.G. Ji, -.R. Prakash, - Hydrothermal synthesis of Zn–Mg-based layered double hydroxide coatings for the corrosion protection of copper in chloride and hydroxide media, - Int. J. Miner. Metall. Mater. - 28(- 12) (2021) - 1991.##[195] J. Dong, Q. Fang, H. He, Y. Zhang, J. Xu, Y. Sun, Electrochemical sensor based on EDTA intercalated into layered double hydroxides of magnesium and aluminum for ultra trace level detection of lead (II), Microchimica Acta 182(3) (2015) 653-659.##[196] K. Asadpour-Zeynali, R. Amini, A novel voltammetric sensor for mercury(II) based on mercaptocarboxylic acid intercalated layered double hydroxide nanoparticles modified electrode, Sensors and Actuators B: Chemical 246 (2017) 961-968.##[197] L. Fernández, I. Ledezma, C. Borrás, L.A. Martínez, H. Carrero, Horseradish peroxidase modified electrode based on a film of Co–Al layered double hydroxide modified with sodium dodecylbenzenesulfonate for determination of 2-chlorophenol, Sensors and Actuators B: Chemical 182 (2013) 625-632.##[198] T. Zhan, Y. Song, X. Li, W. Hou, Electrochemical sensor for bisphenol A based on ionic liquid functionalized Zn-Al layered double hydroxide modified electrode, Materials Science and Engineering: C 64 (2016) 354-361.##[199] S.-S. Li, M. Jiang, T.-J. Jiang, J.-H. Liu, Z. Guo, X.-J. Huang, Competitive adsorption behavior toward metal ions on nano-Fe/Mg/Ni ternary layered double hydroxide proved by XPS: Evidence of selective and sensitive detection of Pb(II), Journal of Hazardous Materials 338 (2017) 1-10.##[200] Z. Yang, W.W. Tjiu, W. Fan, T. Liu, Electrodepositing Ag nanodendrites on layered double hydroxides modified glassy carbon electrode: Novel hierarchical structure for hydrogen peroxide detection, Electrochimica Acta 90 (2013) 400-407.##[201] M. Asif, H. Liu, A. Aziz, H. Wang, Z. Wang, M. Ajmal, F. Xiao, H. Liu, Core-shell iron oxide-layered double hydroxide: High electrochemical sensing performance of H2O2 biomarker in live cancer cells with plasma therapeutics, Biosensors and Bioelectronics 97 (2017) 352-359.##[202] M. Asif, W. Haitao, D. Shuang, A. Aziz, G. Zhang, F. Xiao, H. Liu, Metal oxide intercalated layered double hydroxide nanosphere: With enhanced electrocatalyic activity towards H2O2 for biological applications, Sensors and Actuators B: Chemical 239 (2017) 243-252.##[203] H. Liang, X. Miao, J. Gong, One-step fabrication of layered double hydroxides/graphene hybrid as solid-phase extraction for stripping voltammetric detection of methyl parathion, Electrochemistry Communications 20 (2012) 149-152.##[204] M.S. Yarger, E.M.P. Steinmiller, K.-S. Choi, Electrochemical Synthesis of Zn−Al Layered Double Hydroxide (LDH) Films, Inorganic Chemistry 47(13) (2008) 5859-5865.##[205] K. Nejati, K. Asadpour-Zeynali, Electrochemical synthesis of nickel–iron layered double hydroxide: Application as a novel modified electrode in electrocatalytic reduction of metronidazole, Materials Science and Engineering: C 35 (2014) 179-184.##[206] N. Baig, M. Sajid, Applications of layered double hydroxides based electrochemical sensors for determination of environmental pollutants: A review, Trends in Environmental Analytical Chemistry 16 (2017) 1-15.##[207] I.M. Isa, S.N.M. Sharif, N. Hashim, S.A. Ghani, Amperometric determination of nanomolar mercury(II) by layered double nanocomposite of zinc/aluminium hydroxide-3(4-methoxyphenyl)propionate modified single-walled carbon nanotube paste electrode, Ionics 21(10) (2015) 2949-2958.##[208] H. Nakayama, S. Hirami, M. Tsuhako, Selective adsorption of mercury ion by mercaptocarboxylic acid intercalated Mg–Al layered double hydroxide, Journal of Colloid and Interface Science 315(1) (2007) 177-183.##[209] H. Heli, J. Pishahang, H.B. Amiri, Synthesis of hexagonal CoAl-layered double hydroxide nanoshales/carbon nanotubes composite for the non-enzymatic detection of hydrogen peroxide, Journal of Electroanalytical Chemistry 768 (2016) 134-144.##[210] S.B. Khan, A.M. Asiri, K. Akhtar, M.A. Rub, Development of electrochemical sensor based on layered double hydroxide as a marker of environmental toxin, Journal of Industrial and Engineering Chemistry 30 (2015) 234-238.##[211] S. Yuan, D. Peng, X. Hu, J. Gong, Bifunctional sensor of pentachlorophenol and copper ions based on nanostructured hybrid films of humic acid and exfoliated layered double hydroxide via a facile layer-by-layer assembly, Analytica Chimica Acta 785 (2013) 34-42.##[212] M. Li, F. Ni, Y. Wang, S. Xu, D. Zhang, S. Chen, L. Wang, Sensitive and Facile Determination of Catechol and Hydroquinone Simultaneously Under Coexistence of Resorcinol with a Zn/Al Layered Double Hydroxide Film Modified Glassy Carbon Electrode, Electroanalysis 21(13) (2009) 1521-1526.##[213] M. Shen, Z. Zhang, Y. Ding, Synthesizing NiAl-layered double hydroxide microspheres with hierarchical structure and electrochemical detection of hydroquinone and catechol, Microchemical Journal 124 (2016) 209-214.##[214] H. Yin, Y. Zhou, L. Cui, X. Liu, S. Ai, L. Zhu, Electrochemical oxidation behavior of bisphenol A at surfactant/layered double hydroxide modified glassy carbon electrode and its determination, Journal of Solid State Electrochemistry 15(1) (2011) 167-173.##[215] E. Han, D. Shan, H. Xue, S. Cosnier, Hybrid Material Based on Chitosan and Layered Double Hydroxides: Characterization and Application to the Design of Amperometric Phenol Biosensor, Biomacromolecules 8(3) (2007) 971-975.##[216] P. Bai, G. Fan, F. Li, Novel Zn–Al layered double hydroxide/carbon nanotube nanocomposite for electrochemical determination of catechol and hydroquinone, Materials Letters 65(15) (2011) 2330-2332.##[217] M. Ali, E. Pervaiz, T. Noor, O. Rabi, R. Zahra, M. Yang, Recent advancements in MOF-based catalysts for applications in electrochemical and photoelectrochemical water splitting: A review, International Journal of Energy Research 45(2) (2021) 1190-1226.##[218] C. Candia-Onfray, S. Rojas, M.V.B. Zanoni, R. Salazar, An updated review of metal–organic framework materials in photo(electro)catalytic applications: From CO2 reduction to wastewater treatments, Current Opinion in Electrochemistry 26 (2021) 100669.##[219] A. Amini, S. Kazemi, V. Safarifard, Metal-organic framework-based nanocomposites for sensing applications – A review, Polyhedron 177 (2020) 114260.##[220] L. He, Y. Liu, J. Lau, W. Fan, Q. Li, C. Zhang, P. Huang, X. Chen, Recent progress in nanoscale metal-organic frameworks for drug release and cancer therapy, Nanomedicine 14(10) (2019) 1343-1365.##[221] Y. Cao, X. Mi, X. Li, B. Wang, Defect Engineering in Metal‒Organic Frameworks as Futuristic Options for Purification of Pollutants in an Aqueous Environment, Frontiers in Chemistry 9 (2021).##[222] Y. Wen, X. Wu, Q.-L. Zhu, The Structures of Metal–Organic Frameworks, Advanced Structural Chemistry2021, pp. 342-389.##[223] C. Dey, T. Kundu, B.P. Biswal, A. Mallick, R. Banerjee, Crystalline metal-organic frameworks (MOFs): synthesis, structure and function, Acta Crystallographica Section B 70(1) (2014) 3-10.##[224] L.J. Wang, H. Deng, H. Furukawa, F. Gándara, K.E. Cordova, D. Peri, O.M. Yaghi, Synthesis and Characterization of Metal–Organic Framework-74 Containing 2, 4, 6, 8, and 10 Different Metals, Inorganic Chemistry 53(12) (2014) 5881- 5883.##[225] E.A. Flügel, A. Ranft, F. Haase, B.V. Lotsch, Synthetic routes toward MOF nanomorphologies, Journal of Materials Chemistry 22(20) (2012) 10119-10133.##[226] Y.-R. Lee, J. Kim, W.-S. Ahn, Synthesis of metal-organic frameworks: A mini review, Korean Journal of Chemical Engineering 30(9) (2013) 1667-1680.##[227] W. Kleist, M. Maciejewski, A. Baiker, MOF-5 based mixed-linker metal–organic frameworks: Synthesis, thermal stability and catalytic application, Thermochimica Acta 499(1) (2010) 71-78.##[228] D.J. Tranchemontagne, J.R. Hunt, O.M. Yaghi, Room temperature synthesis of metal-organic frameworks: MOF-5, MOF-74, MOF-177, MOF-199, and IRMOF-0, Tetrahedron 64(36) (2008) 8553-8557.##[229] Z.C. Wu Qianye, Sun Kang, Jiang Hai-Long, Microwave-Assisted Synthesis and Photocatalytic Performance of a Soluble Porphyrinic MOF, Acta Chimica Sinica 78(7) (2020) 688-694.##[230] H. Zhang, M. Zhao, Y.S. Lin, Stability of ZIF-8 in water under ambient conditions, Microporous and Mesoporous Materials 279 (2019) 201-210.##[231] H. Jiang, Q. Wang, H. Wang, Y. Chen, M. Zhang, Temperature effect on the morphology and catalytic performance of Co-MOF-74 in low-temperature NH3- SCR process, Catalysis Communications 80 (2016) 24-27.##[232] N. Nijem, J.-F. Veyan, L. Kong, K. Li, S. Pramanik, Y. Zhao, J. Li, D. Langreth, Y.J. Chabal, Interaction of Molecular Hydrogen with Microporous Metal Organic Framework Materials at Room Temperature, Journal of the American Chemical Society 132(5) (2010) 1654-1664.##[233] A. Benedetto, A. Calvi, A pilot study on microwave heating for production and recycling of road pavement materials, Construction and Building Materials 44 (2013) 351-359.##[234] N.A. Pivovarova, Use of Wave Effect in Processing of the Hydrocarbonic Raw Material (Review), Petroleum Chemistry 59(6) (2019) 559-569.##[235] P. Amo-Ochoa, G. Givaja, P.J.S. Miguel, O. Castillo, F. Zamora, Microwave assisted hydrothermal synthesis of a novel CuI-sulfate-pyrazine MOF, Inorganic Chemistry Communications 10(8) (2007) 921-924.##[236] J. Klinowski, F.A. Almeida Paz, P. Silva, J. Rocha, Microwave-Assisted Synthesis of Metal–Organic Frameworks, Dalton Transactions 40(2) (2011) 321-330.##[237] Y. Liu, Y. Zhang, J. Chen, H. Pang, Copper metal–organic framework nanocrystal for plane effect nonenzymatic electro-catalytic activity of glucose, Nanoscale 6(19) (2014) 10989-10994.##[238] Z. Li, G. Dai, F. Luo, Y. Lu, J. Zhang, Z. Chu, P. He, F. Zhang, Q. Wang, An electrochemical sensor for bacterial lipopolysaccharide detection based on dual functional Cu2+-modified metal–organic framework nanoparticles, Microchimica Acta 187(7) (2020) 415.##[239] P. Arul, S.A. John, Size controlled synthesis of Ni-MOF using polyvinylpyrrolidone: New electrode material for the trace level determination of nitrobenzene, Journal of Electroanalytical Chemistry 829 (2018) 168-176.##[240] X. Gao, S. DelaCruz, C. Zhu, S. Cheng, D. Gardner, Y. Xie, C. Carraro, R. Maboudian, Surface functionalization of carbon cloth with cobalt-porphyrin-based metal organic framework for enhanced electrochemical sensing, Carbon 148 (2019) 64-71.##[241] N.S. Lopa, M.M. Rahman, F. Ahmed, T. Ryu, J. Lei, I. Choi, D.H. Kim, Y.H. Lee, W. Kim, A chemically and electrochemically stable, redox-active and highly sensitive metal azolate framework for non-enzymatic electrochemical detection of glucose, Journal of Electroanalytical Chemistry 840 (2019) 263-271.##[242] B. Li, J.-G. Ma, P. Cheng, Integration of Metal Nanoparticles into Metal–Organic Frameworks for Composite Catalysts: Design and Synthetic Strategy, Small 15(32) (2019) 1804849.##[243] Y. Wang, L. Wang, H. Chen, X. Hu, S. Ma, Fabrication of Highly Sensitive and Stable Hydroxylamine Electrochemical Sensor Based on Gold Nanoparticles and Metal–Metalloporphyrin Framework Modified Electrode, ACS Applied Materials and Interfaces 8(28) (2016) 18173-18181.##[244] Z. Peng, Z. Jiang, X. Huang, Y. Li, A novel electrochemical sensor of tryptophan based on silver nanoparticles/metal–organic framework composite modified glassy carbon electrode, RSC Advances 6(17) (2016) 13742-13748.##[245] W. Dang, Y. Sun, H. Jiao, L. Xu, M. Lin, AuNPs-NH2/Cu-MOF modified glassy carbon electrode as enzyme-free electrochemical sensor detecting H2O2, Journal of Electroanalytical Chemistry 856 (2020) 113592.##[246] Z. Wang, M. Li, Y. Ye, Y. Yang, Y. Lu, X. Ma, Z. Zhang, S. Xiang, MOF-derived binary mixed carbon/metal oxide porous materials for constructing simultaneous determination of hydroquinone and catechol sensor, Journal of Solid State Electrochemistry 23(1) (2019) 81-89.##[247] H. Chen, X. Wu, C. Lao, Y. Li, Q. Yuan, W. Gan, MOF derived porous carbon modified rGO for simultaneous determination of hydroquinone and catechol, Journal of Electroanalytical Chemistry 835 (2019) 254-261.##[248] Y. Zhou, C. Li, Y. Hao, B. Ye, M. Xu, Oriented growth of cross-linked metal-organic framework film on graphene surface for non-enzymatic electrochemical sensor of hydrogen peroxide in disinfectant, Talanta 188 (2018) 282-287.##[249] X.-Q. Wu, J.-G. Ma, H. Li, D.-M. Chen, W. Gu, G.-M. Yang, P. Cheng, Metal–organic framework biosensor with high stability and selectivity in a bio-mimic environment, Chemical Communications 51(44) (2015) 9161-9164.##[250] Y. Hua, X. Lv, Y. Cai, H. Liu, S. Li, Y. Wan, H. Wang, Highly selective and reproducible electroanalysis for histidine in blood with turn-on responses at a potential approaching zero using tetrahedral copper metal organic frameworks, Chemical Communications 55(9) (2019) 1271-1274.##[251] W. Ling, G. Liew, Y. Li, Y. Hao, H. Pan, H. Wang, B. Ning, H. Xu, X. Huang, Materials and Techniques for Implantable Nutrient Sensing Using Flexible Sensors Integrated with Metal–Organic Frameworks, Advanced Materials 30(23) (2018) 1800917.##[252] D. Yu, Y. Zeng, Y. Qi, T. Zhou, G. Shi, A novel electrochemical sensor for determination of dopamine based on AuNPs@SiO2 core-shell imprinted composite, Biosensors and Bioelectronics 38(1) (2012) 270-277.##[253] N.P. Shetti, S.J. Malode, D. Ilager, K. Raghava Reddy, S.S. Shukla, T.M. Aminabhavi, A Novel Electrochemical Sensor for Detection of Molinate Using ZnO Nanoparticles Loaded Carbon Electrode, Electroanalysis 31(6) (2019) 1040- 1049.##[254] L.A. Alshahrani, L. Liu, P. Sathishkumar, J. Nan, F.L. Gu, Copper oxide and carbon nano-fragments modified glassy carbon electrode as selective electrochemical sensor for simultaneous determination of catechol and hydroquinone in real-life water samples, Journal of Electroanalytical Chemistry 815 (2018) 68-75.##[255] X. Wang, X. Bu, P. Feng, Porous Inorganic Materials, Encyclopedia of Inorganic and Bioinorganic Chemistry 2011.##[256] H. Huwe, M. Fröba, Synthesis and characterization of transition metal and metal oxide nanoparticles inside mesoporous carbon CMK-3, Carbon 45(2) (2007) 304-314.##[257] J.M. George, A. Antony, B. Mathew, Metal oxide nanoparticles in electrochemical sensing and biosensing: a review, Microchimica Acta 185(7) (2018) 358.##[258] P. Balaji, L.D. Don, R.W. Mark, C. Richard, S. Steve, Nanoparticle engineering and control of tin oxide microstructures for chemical microsensor applications, Nanotechnology 12(3) (2001) 336.##[259] A. Mirzaei, K. Janghorban, B. Hashemi, G. Neri, Metal-core@metal oxide-shell nanomaterials for gas-sensing applications: a review, Journal of Nanoparticle Research 17(9) (2015) 371.##[260] X. Liu, J. Iocozzia, Y. Wang, X. Cui, Y. Chen, S. Zhao, Z. Li, Z. Lin, Noble metal–metal oxide nanohybrids with tailored nanostructures for efficient solar energy conversion, photocatalysis and environmental remediation, Energy and Environmental Science 10(2) (2017) 402-434.##[261] Y. Ren, Z. Ma, P.G. Bruce, Ordered mesoporous metal oxides: synthesis and applications, Chemical Society Reviews 41(14) (2012) 4909-4927.##[262] X. Hu, Y. Hu, Q. Xu, X. Wang, G. Li, H. Cheng, X. Zou, X. Lu, Molten salt-promoted Ni–Fe/Al2O3 catalyst for methane decomposition, International Journal of Hydrogen Energy 45(7) (2020) 4244-4253.##[263] M.A. Hayward, M.A. Green, M.J. Rosseinsky, J. Sloan, Sodium Hydride as a Powerful Reducing Agent for Topotactic Oxide Deintercalation: Synthesis and Characterization of the Nickel(I) Oxide LaNiO2, Journal of the American Chemical Society 121(38) (1999) 8843-8854.##[264] M. Zayed, H. Othman, H. Ghazal, A.G. Hassabo, Psidium guajava leave extract as reducing agent for synthesis of zinc oxide nanoparticles and its application to impart multifunctional properties for cellulosic fabrics, (2021).##[265] A.V. Nikam, B.L.V. Prasad, A.A. Kulkarni, Wet chemical synthesis of metal oxide nanoparticles: a review, CrystEngComm 20(35) (2018) 5091-5107.##[266] A. Allanore, Features and Challenges of Molten Oxide Electrolytes for Metal Extraction, Journal of The Electrochemical Society 162(1) (2015) E13.##[267] R.O. Wright, A. Baccarelli, Metals and Neurotoxicology1,2, The Journal of Nutrition 137(12) (2007) 2809-2813.##[268] K.S. Mohandas, Direct electrochemical conversion of metal oxides to metal by molten salt electrolysis: a review, Mineral Processing and Extractive Metallurgy 122(4) (2013) 195-212.##[269] C. Young, J. Wang, J. Kim, Y. Sugahara, J. Henzie, Y. Yamauchi, Controlled Chemical Vapor Deposition for Synthesis of Nanowire Arrays of Metal–Organic Frameworks and Their Thermal Conversion to Carbon/Metal Oxide Hybrid Materials, Chemistry of Materials 30(10) (2018) 3379-3386.##[270] R. John, A. Ashokreddy, C. Vijayan, T. Pradeep, Single- and few-layer graphene growth on stainless steel substrates by direct thermal chemical vapor deposition, Nanotechnology 22(16) (2011) 165701.##[271] N. Kaur, E. Comini, D. Zappa, N. Poli, G. Sberveglieri, Nickel oxide nanowires: vapor liquid solid synthesis and integration into a gas sensing device, Nanotechnology 27(20) (2016) 205701.##[272] H.K. Yu, J.-L. Lee, Growth mechanism of metal-oxide nanowires synthesized by electron beam evaporation: A self-catalytic vapor-liquid-solid process, Scientific Reports 4(1) (2014) 6589.##[273] S. Shafiei, A. Nourbakhsh, B. Ganjipour, M. Zahedifar, G. Vakili-Nezhaad, Diameter optimization of VLS-synthesized ZnO nanowires, using statistical design of experiment, Nanotechnology 18(35) (2007) 355708.##[274] J.L. Gumaste, S.K. Singh, P.K. Sahoo, R.K. Galgali, Synthesis of TiC Fibres from TiO2 Containing Raw Materials by Vapour-Liquid-Solid (V-L-S) Growth Method, Transactions of the Indian Ceramic Society 62(2) (2003) 97-99.##[275] M. Starowicz, B. Stypuła, Electrochemical Synthesis of ZnO Nanoparticles, European Journal of Inorganic Chemistry 2008(6) (2008) 869-872.##[276] M.N. Kamalasanan, S. Chandra, Sol-gel synthesis of ZnO thin films, Thin Solid Films 288(1) (1996) 112-115.##[277] R. Sui, P. Charpentier, Synthesis of Metal Oxide Nanostructures by Direct Sol–Gel Chemistry in Supercritical Fluids, Chemical Reviews 112(6) (2012) 3057- 3082.##[278] H. Cai, X. An, J. Cui, J. Li, S. Wen, K. Li, M. Shen, L. Zheng, G. Zhang, X. Shi, Facile Hydrothermal Synthesis and Surface Functionalization of Polyethyleneimine-Coated Iron Oxide Nanoparticles for Biomedical Applications, ACS Applied Materials and Interfaces 5(5) (2013) 1722-1731.##[279] S. Narayanan, Metal-Polymer Hybrid Materials for Flexible Transparent Conductors, Carnegie Mellon University, 2014.##[280] X. Zhou, H. Pu, D.-W. Sun, DNA functionalized metal and metal oxide nanoparticles: principles and recent advances in food safety detection, Critical Reviews in Food Science and Nutrition 61(14) (2021) 2277-2296.##[281] H. Abunahla, B. Mohammad, A. Alazzam, M.A. Jaoude, M. Al-Qutayri, S. Abdul Hadi, S.F. Al-Sarawi, MOMSense: Metal-Oxide-Metal Elementary Glucose Sensor, Scientific Reports 9(1) (2019) 5524.##[282] Y. Pan, Z. Hou, W. Yi, W. Zhu, F. Zeng, Y.-N. Liu, Hierarchical hybrid film of MnO2 nanoparticles/multi-walled fullerene nanotubes–graphene for highly selective sensing of hydrogen peroxide, Talanta 141 (2015) 86-91.##[283] A.T.E. Vilian, S.-M. Chen, Preparation of carbon nanotubes decorated with manganese dioxide nanoparticles for electrochemical determination of ferulic acid, Microchimica Acta 182(5) (2015) 1103-1111.##[284] A.T. Ezhil Vilian, R. Madhu, S.-M. Chen, V. Veeramani, M. Sivakumar, Y.S. Huh, Y.-K. Han, Facile synthesis of MnO2/carbon nanotubes decorated with a nanocomposite of Pt nanoparticles as a new platform for the electrochemical detection of catechin in red wine and green tea samples, Journal of Materials Chemistry B 3(30) (2015) 6285-6292.##[285] M.M. Farid, L. Goudini, F. Piri, A. Zamani, F. Saadati, Molecular imprinting method for fabricating novel glucose sensor: Polyvinyl acetate electrode reinforced by MnO2/CuO loaded on graphene oxide nanoparticles, Food Chemistry 194 (2016) 61-67.##[286] Y.-W. Hsu, T.-K. Hsu, C.-L. Sun, Y.-T. Nien, N.-W. Pu, M.-D. Ger, Synthesis of CuO/graphene nanocomposites for nonenzymatic electrochemical glucose biosensor applications, Electrochimica Acta 82 (2012) 152-157.##[287] J. Yang, L.-C. Jiang, W.-D. Zhang, S. Gunasekaran, A highly sensitive non-enzymatic glucose sensor based on a simple two-step electrodeposition of cupric oxide (CuO) nanoparticles onto multi-walled carbon nanotube arrays, Talanta 82(1) (2010) 25-33.##[288] J. Zhang, C. Wang, Y. Tang, H. Peng, Z.-c. Ye, C.-c. Li, T.-Q. Lou, Serum immunoglobulin A/C3 ratio predicts progression of immunoglobulin A nephropathy, Nephrology 18(2) (2013) 125-131.##[289] J. Zhang, Y.-l. Song, C.-x. Bai, MIOTIC study: a prospective, multicenter, randomized study to evaluate the long-term efficacy of mobile phone-based Internet of Things in the management of patients with stable COPD, International Journal of Chronic Obstructive Pulmonary Disease 8(null) (2013) 433-438.##[290] B. Li, Y. Zhou, W. Wu, M. Liu, S. Mei, Y. Zhou, T. Jing, Highly selective and sensitive determination of dopamine by the novel molecularly imprinted poly(nicotinamide)/CuO nanoparticles modified electrode, Biosensors and Bioelectronics 67 (2015) 121-128.##[291] J. Yang, H. Ye, F. Zhao, B. Zeng, A Novel CuxO Nanoparticles@ZIF-8 Composite Derived from Core–Shell Metal–Organic Frameworks for Highly Selective Electrochemical Sensing of Hydrogen Peroxide, ACS Applied Materials and Interfaces 8(31) (2016) 20407-20414.##[292] Y.-f. Hu, Z.-h. Zhang, H.-b. Zhang, L.-j. Luo, S.-z. Yao, Sensitive and selective imprinted electrochemical sensor for p-nitrophenol based on ZnO nanoparticles/carbon nanotubes doped chitosan film, Thin Solid Films 520(16) (2012) 5314-5321.##[293] E. Roy, S. Patra, A. Tiwari, R. Madhuri, P.K. Sharma, RETRACTED: Single cell imprinting on the surface of Ag–ZnO bimetallic nanoparticle modified graphene oxide sheets for targeted detection, removal and photothermal killing of E. Coli, Biosensors and Bioelectronics 89 (2017) 620-626.##[294] Y. Yang, Y. Wang, X. Bao, H. Li, Electrochemical deposition of Ni nanoparticles decorated ZnO hexagonal prisms as an effective platform for non-enzymatic detection of glucose, Journal of Electroanalytical Chemistry 775 (2016) 163-170.##[295] T. Yumak, F. Kuralay, M. Muti, A. Sinag, A. Erdem, S. Abaci, Preparation and characterization of zinc oxide nanoparticles and their sensor applications for electrochemical monitoring of nucleic acid hybridization, Colloids and Surfaces B: Biointerfaces 86(2) (2011) 397-403.##[296] A. Salimi, R. Hallaj, H. Mamkhezri, S.M.T. Hosaini, Electrochemical properties and electrocatalytic activity of FAD immobilized onto cobalt oxide nanoparticles: Application to nitrite detection, Journal of Electroanalytical Chemistry 619- 620 (2008) 31-38.##[297] W. Jia, M. Guo, Z. Zheng, T. Yu, E.G. Rodriguez, Y. Wang, Y. Lei, Electrocatalytic oxidation and reduction of H2O2 on vertically aligned Co3O4 nanowalls electrode: Toward H2O2 detection, Journal of Electroanalytical Chemistry 625(1) (2009) 27-32.##[298] S. Erogul, S.Z. Bas, M. Ozmen, S. Yildiz, A new electrochemical sensor based on Fe3O4 functionalized graphene oxide-gold nanoparticle composite film for simultaneous determination of catechol and hydroquinone, Electrochimica Acta 186 (2015) 302-313.##[299] G. Ma, H. Xu, M. Wu, L. Wang, J. Wu, F. Xu, A hybrid composed of MoS2, reduced graphene oxide and gold nanoparticles for voltammetric determination of hydroquinone, catechol, and resorcinol, Microchimica Acta 186(11) (2019) 689.##[300] L.A. Goulart, L.H. Mascaro, GC electrode modified with carbon nanotubes and NiO for the simultaneous determination of bisphenol A, hydroquinone and catechol, Electrochimica Acta 196 (2016) 48-55.