[1] Zdravkov, B., Čermák, J., Šefara, M., & Janků, J. (2007). Pore classification in the characterization of porous materials: A perspective. Open Chemistry, 5(2), 385-395.
[2] Osenberg, M., Hilger, A., Neumann, M., Wagner, A., Bohn, N., Binder, J. R., & Manke, I. (2023). Classification of FIB/SEM-tomography images for highly porous multiphase materials using random forest classifiers. Journal of Power Sources, 570, 233030.
[3] Sangshetti, J. N., Deshpande, M., Zaheer, Z., Shinde, D. B., & Arote, R. (2017). Quality by design approach: Regulatory need. Arabian Journal of chemistry, 10, S3412-S3425.
[4] Chittireddy, H. N. P. R., Kumar, J. S., Bhimireddy, A., Shaik, M. R., Hatshan, M. R., Khan, M., & Shaik, B. (2023). Development and Validation for Quantitative Determination of Genotoxic Impurity in Gemfibrozil by Gas Chromatography with Mass Spectrometry. Separations, 10(3), 145.
[5] Sanghavi, B. J., Kalambate, P. K., Karna, S. P., & Srivastava, A. K. (2014). Voltammetric determination of sumatriptan based on a graphene/gold nanoparticles/Nafion composite modified glassy carbon electrode. Talanta, 120, 1-9.
[6] Yola, M. L., Atar, N., Üstündağ, Z., & Solak, A. O. (2013). A novel voltammetric sensor based on
p-aminothiophenol functionalized graphene oxide/gold nanoparticles for determining quercetin in the presence of ascorbic acid. Journal of Electroanalytical Chemistry, 698, 9-16.
[7] Yola, M. L., Atar, N., Qureshi, M. S., Üstündağ, Z., & Solak, A. O. (2012). Electrochemically grafted etodolac film on glassy carbon for Pb (II) determination. Sensors and Actuators B: Chemical, 171, 1207-1215.
[8] Yaldagard, M. (2023). Electrochemical Fundamentals of Polymer Fuel Cells and Factors Affecting its Performance. Iranian Chemical Engineering Journal, 21(125), 22-56,[In Persian].
[9] Zargham, A., Moghaddam, J., Keramati, N. (2020). Investigation of Methods and Affecting Factors on the Synthesis of Copper (I) Oxide Nanoparticles in Stable Form. Iranian Chemical Engineering Journal, 19(111), 81-91,[In Persian].
[10] Brahman, P. K., Dar, R. A., Tiwari, S., & Pitre, K. S. (2012). Electrochemical behavior of gatifloxacin at multi-walled carbon nanotube paste electrode and its interaction with DNA. Reviews in Analytical Chemistry, 31(2), 83-92.
[11] Zinatloo-Ajabshir, S., & Salavati-Niasari, M. (2019). Preparation of magnetically retrievable CoFe2O4@ SiO2@ Dy2Ce2O7 nanocomposites as novel photocatalyst for highly efficient degradation of organic contaminants. Composites Part B: Engineering, 174, 106930.
[12] Zinatloo-Ajabshir, Z., & Zinatloo-Ajabshir, S. (2019). Preparation and characterization of curcumin niosomal nanoparticles via a simple and eco-friendly route. Journal of Nanostructures, 9(4), 784-790.
[13] Zinatloo-Ajabshir, S., & Taheri Qazvini, N. (2015). Effect of some synthetic parameters on size and polydispersity index of gelatin nanoparticles
cross-linked by CDI/NHS system. Journal of Nanostructures, 5, 137-144.
[14] Zhang, D., Ouyang, X., Ma, J., Li, L., & Zhang, Y. (2016). Electrochemical behavior and voltammetric determination of curcumin at electrochemically reduced graphene oxide modified glassy carbon electrode. Electroanalysis, 28(4), 749-756.
[15] Wang, J., Wang, Z., Liu, J., Li, H., Li, Q. X., Li, J., & Xu, T. (2013). Nanocolloidal gold-based immuno-dip strip assay for rapid detection of Sudan red I in food samples. Food Chemistry, 136(3-4), 1478-1483.
[16] Kim, B. K., Kim, J. Y., Kim, D. H., Choi, H. N., & Lee, W. Y. (2013). Electrochemical determination of bisphenol A at carbon nanotube-doped titania-nafion composite modified electrode. Bulletin of the Korean Chemical Society, 34(4), 1065-1069.
[17] Keyvanfard, M., Shakeri, R., Karimi-Maleh, H., & Alizad, K. (2013). Highly selective and sensitive voltammetric sensor based on modified multiwall carbon nanotube paste electrode for simultaneous determination of ascorbic acid, acetaminophen and tryptophan. Materials Science and Engineering: C, 33(2), 811-816.
[18] Amirabedi, P., Akbari, A., Yegani, R., Raveshiyan S. (2020). Effect of methyl and fluorine grafted silica nanoparticles on the performance of polypropylene membrane contactors. Iranian Chemical Engineering Journal, 19 (108), 89-100.[In Pesian].
[19] Zinatloo-Ajabshir, S., & Taheri, Q. N. (2014). Inverse miniemulsion method for synthesis of gelatin nanoparticles in presence of CDI/NHS as a non-toxic cross-linking system. Journal of Nanostructures, 4, 267-275.
[20] Habibi, B. Ayazi, Rostami, Jalal. (2018). Measurement of simultaneous electrolysis of morphine and phenylephrine using ceramic carbon electrode modified with ionic liquid and carbon nanotubes. Applied Chemistry, 13(46), 28-9, 9-10,[In Pesian].
[21] Habibi, B., & Pournaghi-Azar, M. H. (2010). Simultaneous determination of ascorbic acid, dopamine and uric acid by use of a MWCNT modified carbon-ceramic electrode and differential pulse voltammetry. Electrochimica Acta, 55(19), 5492-5498.
[22] Habibi, B., Jahanbakhshi, M., & Pournaghi-Azar, M. H. (2011). Differential pulse voltammetric simultaneous determination of acetaminophen
and ascorbic acid using single-walled carbon nanotube-modified carbon–ceramic electrode. Analytical Biochemistry, 411(2), 167-175.
[23] Taheri Qazvini, N., & Zinatloo-Ajabshir, S., (2011). Synthesis and characterization of gelatin nanoparticles using CDI/NHS as a non-toxic
cross-linking system. Journal of Materials Science: Materials in Medicine, 22, 63-69.
[24] Wang, X., Liu, B., Li, J., Zhai, Y., Liu, H., Li, L., & Wen, H. (2021). Conductive 2D Metal‐organic Framework (Co, NiCo, Ni) Nanosheets for Enhanced Non‐enzymatic Detection of Urea. Electroanalysis, 33(6), 1484-1490.
[25] Ezzati, M., Shahrokhian, S., & Hosseini, H. (2020). In situ two-step preparation of 3D NiCo-BTC MOFs on a glassy carbon electrode and a graphitic screen printed electrode as nonenzymatic glucose-sensing platforms. ACS Sustainable Chemistry & Engineering, 8(38), 14340-14352.
[26] Baumann, A. E., Burns, D. A., Liu, B., & Thoi, V. S. (2019). Metal-organic framework functionalization and design strategies for advanced electrochemical energy storage devices. Communications Chemistry, 2(1), 86.
[27] Beitollahi, H., Mohammadi, S. Z., Safaei, M., & Tajik, S. (2020). Applications of electrochemical sensors and biosensors based on modified
screen-printed electrodes: a review. Analytical Methods, 12(12), 1547-1560.
[28] Mustafa, Y. F., Chehardoli, G., Habibzadeh, S., & Arzehgar, Z. (2022). Electrochemical detection of sulfite in food samples. Journal of Electrochemical Science and Engineering, 12(6), 1061-1079.
[29] Mohabis, R. M., Fazeli, F., Amini, I., & Azizkhani, V. (2022). An overview of recent advances in the detection of ascorbic acid by electrochemical techniques. Journal of Electrochemical Science and Engineering, 12(6), 1081-1098.
[30] Hajializadeh, A. (2022). An electrochemical sensor for detection of vanillin in food samples using CuFe2O4 nanoparticles/ionic liquids modified carbon paste electrode. Journal of Electrochemical Science and Engineering, 12(6), 1193-1203.
[31] Ghasemzadeh, K., Valibak Nejad, M., Aghaeinejad-Meybodi, A. (2018). A Review of Membrane Technology Application in Novel Drug Delivery Systems. Iranian Chemical Engineering Journal, 17(92), 18-31.[In Pesian].
[32] Mohammadian, A., Ebrahimi, M. (2020). Voltammetric measurement of tert-butyl hydroquinone in food samples using carbon paste modified with gold nanoparticles and ionic liquid as sensors. Applied Chemistry, 15(55), 289-298.[In Persian].
[33] Ghafouri Taleghani, H. R., Salimi Kenari, H. Cheraghi, M. (2023). Investigation of the controlled release behavior of amoxicillin from dextran hydrogels, Iranian Chemical Engineering Journal, doi: 10.22034/ijche.2023.401459.1320.[In Pesian].
[34] Porrang, S., Rahemi, N., Davaran, S., Mahdavi, M., Hassanzadeh, B. (2021). Synthesis of High Biocompatible Mesoporous Silica Nanocarriers with Regular and Uniform Pore Distribution for Doxorubicin Drug Delivery. Iranian Chemical Engineering Journal, 20(115), 31-42.[In Pesian].
[35] Garza, M. A., Wason, E. A., & Zhang, J. Q. (2015). Cardiac remodeling and physical training post myocardial infarction. World journal of cardiology, 7(2), 52.
[36] Ahmadi Reskety, A., Arab Chamjangali, M.,Goudarzi, N., Bagherian, G., & Salami, M. (2017). Glassy carbon electrode modified with multi-walled carbon nanotubes and polyalizarin red S as a novel voltammetric sensor for measuring Gemfibrosil. [InPersian].
[37] Todd, P. A., & Ward, A. (1988). Gemfibrozil: a review of its pharmacodynamic and pharmacokinetic properties, and therapeutic use in dyslipidaemia. Drugs, 36, 314-339.
[38] Vashist, S. K., & Luong, J. H. (2015). Recent advances in electrochemical biosensing schemes using graphene and graphene-based nanocomposites. Carbon, 84, 519-550.
[39] Craig, C. R., & Stitzel, R. E. (Eds.). (2004). Modern pharmacology with clinical applications. Lippincott Williams & Wilkins.
[40] Hussein, R. F., & Hammami, M. M. (2014). Determination of gemfibrozil level and its stability in human plasma by fully validated rapaid HPLC analysis. World Journal of Pharmacy and Pharmaceutical Sciences, 3(10), 174-185.
[41] Ahmad, P. H., Feizbakhsh, A., Karimpour, M., & Moniri, E. (2013). Determination of gemfibrozil in drug matrix and human biological fluid by dispersive liquid-liquid microextraction with high performance liquid chromatography. Journal of Food and Drug Analysis, 21(1), 15.
[42] Kublin, E., Kaczmarska-Graczyk, B., Malanowicz, E., & Mazurek, A. P. (2010). Methods of chromatographic determination of medicines decreasing the level of cholesterol. Acta Poloniae Pharmaceutica ñ Drug Research, 67, 455-461.
[43] Naing, N. N., Li, S. F. Y., & Lee, H. K. (2015). Graphene oxide-based dispersive solid-phase extraction combined with in situ derivatization and gas chromatography–mass spectrometry for the determination of acidic pharmaceuticals in water. Journal of Chromatography A, 1426, 69-76.
[44] Huang, S., Zhu, F., Jiang, R., Zhou, S., Zhu, D., Liu, H., & Ouyang, G. (2015). Determination of eight pharmaceuticals in an aqueous sample using automated derivatization solid-phase microextraction combined with gas chromatography–mass spectrometry. Talanta, 136, 198-203.
[45] Manzoori, J. L., & Amjadi, M. (2003). Spectrofluorimetric and micelle-enhanced spectrofluorimetric methods for the determination of gemfibrozil in pharmaceutical preparations. Journal of Pharmaceutical and Biomedical Analysis, 31(3), 507-513.
[46] El-Din, M. M. S., Attia, K. A., Nassar, M. W., & Kaddah, M. M. (2010). Two different spectrofluorimetric methods for simultaneous determination of gemfibrozil and rosiglitazone in human plasma. Talanta, 82(5), 1708-1716.
[47] Villar, A. M. S., Campmany, A. C. C., Bellowa, L. H., Trenchs, M. A., & Naveros, B. C. (2013). Validated spectrofluorometric method for determination of gemfibrozil in self nanoemulsifying drug delivery systems (SNEDDS). Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy, 113, 22-27.
[48] Elsherif, Z. A., Abas, S. S., Abdelwahab, M. H., & El-Weshahy, S. O. H. E. R. (2013). Determination of gemfibrozil and fenofibrate in pharmaceuticals in presence of their degradation products. Int. J. Pharm. Sci, 5(3), 886-896.
[49] Xu, M., Song, J., Guo, W., & Li, N. (2004). Polarographic behavior of gemfibrozil in the presence of dissolved oxygen and its analytical application. Electroanalysis: An International Journal Devoted to Fundamental and Practical Aspects of Electroanalysis, 16(12), 1038-1043.
[50] Luo, J., Jiang, S., Zhang, H., Jiang, J., & Liu, X. (2012). A novel non-enzymatic glucose sensor based on Cu nanoparticle modified graphene sheets electrode. Analytica chimica acta, 709, 47-53.
[51] Thota, R., & Ganesh, V. (2016). Selective and sensitive electrochemical detection of methyl parathion using chemically modified overhead projector sheets as flexible electrodes. Sensors and Actuators B: Chemical, 227, 169-177.
[52] Yu, X., Chen, Y., Chang, L., Zhou, L., Tang, F., & Wu, X. (2013). β-cyclodextrin non-covalently modified ionic liquid-based carbon paste electrode as a novel voltammetric sensor for specific detection of bisphenol A. Sensors and Actuators B: Chemical, 186, 648-656.
[53] Janíková-Bandžuchová, L., Šelešovská, R., Schwarzová-Pecková, K., & Chýlková, J. (2015). Sensitive voltammetric method for rapid determination of pyridine herbicide triclopyr on bare boron-doped diamond electrode. Electrochimica Acta, 154, 421-429.
[54] Tyszczuk-Rotko, K., Bęczkowska, I., & Nosal-Wiercińska, A. (2014). Simple, selective and sensitive voltammetric method for the determination of herbicide (paraquat) using a bare boron-doped diamond electrode. Diamond and related materials, 50, 86-90.
[55] Velmurugan, M., Thirumalraj, B., Chen, S. M., Al-Hemaid, F. M., Ali, M. A., & Elshikh, M. S. (2017). Development of electrochemical sensor for the determination of palladium ions (Pd2+) using flexible screen printed un-modified carbon electrode. Journal of Colloid and Interface Science, 485, 123-128.
[56] Piovesan, J. V., de Lima, C. A., Santana, E. R., & Spinelli, A. (2017). Voltammetric determination of condensed tannins with a glassy carbon electrode chemically modified with gold nanoparticles stabilized in carboxymethylcellulose. Sensors and Actuators B: Chemical, 240, 838-847.
[57] Vashist, S. K., & Luong, J. H. (2015). Recent advances in electrochemical biosensing schemes using graphene and graphene-based nanocomposites. Carbon, 84, 519-550.
[58] Salehzadeh, H., Ebrahimi, M., Nematollahi, D., & Salarian, A. A. (2016). Electrochemical study of fenitrothion and bifenox and their simultaneous determination using multiwalled carbon nanotube modified glassy carbon electrode. Journal of Electroanalytical Chemistry, 767, 188-194.
[59] Ardila, J. A., Oliveira, G. G., Medeiros, R. A., & Fatibello-Filho, O. (2013). Determination of gemfibrozil in pharmaceutical and urine samples by square-wave adsorptive stripping voltammetry using a glassy carbon electrode modified with multi-walled carbon nanotubes within a dihexadecyl hydrogen phosphate film. Journal of Electroanalytical Chemistry, 690, 32-37.
[60] Barsan, M. M., Ghica, M. E., & Brett, C. M. (2015). Electrochemical sensors and biosensors based on redox polymer/carbon nanotube modified electrodes: a review. Analytica chimica acta, 881, 1-23.
[61] Tran, H. V., Piro, B., Reisberg, S., Tran, L. D., Duc, H. T., & Pham, M. C. (2013). Label-free and reagentless electrochemical detection of microRNAs using a conducting polymer nanostructured by carbon nanotubes: Application to prostate cancer biomarker miR-141. Biosensors and Bioelectronics, 49,164-169.
[62] Liu, H. J., Yang, D. W., & Liu, H. H. (2012). A hydrogen peroxide sensor based on the nanocomposites of poly (brilliant cresyl blue) and single walled-carbon nanotubes. Analytical Methods, 4(5), 1421-1426.
[63] Stevens, J. L., Huang, A. Y., Peng, H., Chiang, I. W., Khabashesku, V. N., & Margrave, J. L. (2003). Sidewall amino-functionalization of single-walled carbon nanotubes through fluorination and subsequent reactions with terminal diamines. Nano Letters, 3(3), 331-336.
[64] Chen, R. J., Zhang, Y., Wang, D., & Dai, H. (2001). Noncovalent sidewall functionalization of single-walled carbon nanotubes for protein immobilization. Journal of the American Chemical Society, 123(16), 3838-3839.
[65] Star, A., Liu, Y., Grant, K., Ridvan, L., Stoddart, J. F., Steuerman, D. W., & Heath, J. R. (2003). Noncovalent side-wall functionalization of
single-walled carbon nanotubes. Macromolecules, 36(3), 553-560.
[66] Wu, K., & Hu, S. (2004). Deposition of a thin film of carbon nanotubes onto a glassy carbon electrode by electropolymerization. Carbon, 42(15), 3237-3242.
[67] Liu, J., Zhou, D., Liu, X., Wu, K., & Wan, C. (2009). Determination of kojic acid based on the interface enhancement effects of carbon nanotube/alizarin red S modified electrode. Colloids and Surfaces B: Biointerfaces, 70(1), 20-24.
[68] Oberlin, A., Endo, M., & Koyama, T. (1976). Filamentous growth of carbon through benzene decomposition. Journal of crystal growth, 32(3), 335-349.
[69] Alipour, E., Majidi, M. R., Saadatirad, A., Mahdi Golabi, S., & Alizadeh, A. M. (2013). Simultaneous determination of dopamine and uric acid in biological samples on the pretreated pencil graphite electrode. Electrochimica Acta, 91, 36-42.
[70] Bhayat, S. I., Gowda, H. M., & Eisenhut, M. (2016). Should dopamine be the first line inotrope in the treatment of neonatal hypotension? Review of the evidence. World journal of clinical pediatrics, 5(2), 212.
[71] Beitollahi, H., Tajik, S. (2020). Fabrication of an electrochemical sensor using a printed plate electrode modified with MnO2 nanorods for measuring dopamine. Iranian Journal of Chemistry and Chemical Engineering, 39(1), 119-127,[In Persian].
[72] Demir, E., Göktug, Ö., İnam, R., & Doyduk, D. (2021). Development and characterization of iron (III) phthalocyanine modified carbon nanotube paste electrodes and application for determination of fluometuron herbicide as an electrochemical sensor. Journal of Electroanalytical Chemistry, 895, 115389.
[73] Santana, E. R., Martins, E. C., & Spinelli, A. (2021). Electrode modified with nitrogen-doped graphene quantum dots supported in chitosan for triclocarban monitoring. Microchemical Journal, 167, 106297.
[74] Kumaravel, A., & Murugananthan, M. (2021). Electrochemical detection of fenitrothion usingnanosilver/dodecane modified glassy carbon electrode. Sensors and Actuators B: Chemical, 331, 129467.
[75] Silah, H., Erkmen, C., Demir, E., & Uslu, B. (2021). Modified indium tin oxide electrodes: Electrochemical applications in pharmaceutical, biological, environmental and food analysis. TrAC Trends in Analytical Chemistry, 141, 116289.
[76] Zare-Mehrjardi, H. R. (2021). Preparation of acridine orange-MWCNT modified electrode for voltammetric detection of dopamine in the presence of ascorbic acid. Iranian Journal of Analytical Chemistry, 8(1), 102-109.
[77] Bagheri, H., Karimi-Maleh, H., Karimi, F., Mallakpour, S., & Keyvanfard, M. (2014). Square wave voltammetric determination of captopril in liquid phase using N-(4-hydroxyphenyl)-3,
5-dinitrobenzamide modified ZnO/CNT carbon paste electrode as a novel electrochemical sensor. Journal of Molecular Liquids, 198, 193-199.
[78] El-Kemary, M., Nagy, N., & El-Mehasseb, I. (2013). Nickel oxide nanoparticles: Synthesis and spectral studies of interactions with glucose. Materials Science in Semiconductor Processing, 16(6), 1747-1752.
[79] Iqbal, J., Abbasi, B. A., Mahmood, T., Hameed, S., Munir, A., & Kanwal, S. (2019). Green synthesis and characterizations of Nickel oxide nanoparticles using leaf extract of Rhamnus virgata and their potential biological applications. Applied Organometallic Chemistry, 33(8), e4950.
[80] Arabali, V. (2016). Captopril electrocatalytic measurement using modified electrode with nickel oxide nanoparticles and acetyl ferrocene intermediate in pharmaceutical and biological samples. Applied Chemistry, pp.9-22.[In Persian].
[81] Shurrab, M., Jackevicius, C. A., Austin, P. C., Tu, K., Qiu, F., Caswell, J., & Ko, D. T. (2023). Association between concurrent use of diltiazem and DOACs and risk of bleeding in atrial fibrillation patients. Journal of Interventional Cardiac Electrophysiology, 66(3), 629-635.
[82] Alluri, R., Kilari, E. K., Pasala, P. K., Kopalli, S. R., & Koppula, S. (2023). Repurposing Diltiazem for Its Neuroprotective Anti-Dementia Role against Intra-Cerebroventricular Streptozotocin-Induced Sporadic Alzheimer’s Disease-Type Rat Model. Life, 13(8), 1688.
[83] Imani, R., Shabani-Nooshabadi, M., & Ziaie, N. (2022). Fabrication of a sensitive sensor for electrochemical detection of diltiazem in presence of methyldopa. Chemosphere, 297, 134170.
[84] Ibrahim, M., Ibrahim, H., Almandil, N., & Kawde, A. N. (2018). Gold nanoparticles/f-MWCNT nanocomposites modified glassy carbon paste electrode as a novel voltammetric sensor for the determination of cyproterone acetate in pharmaceutical and human body fluids. Sensors and Actuators B: Chemical, 274, 123-132.
[85] Isaac, A., Davis, J., Livingstone, C., Wain, A. J., & Compton, R. G. (2006). Electroanalytical methods for the determination of sulfite in food and beverages. TrAC Trends in Analytical Chemistry, 25(6),589-598.
[86] Wang, S., & Du, D. (2004). Differential pulse voltammetry determination of ascorbic acid with ferrocene-L-cysteine self-assembled supramolecular film modified electrode. Sensors and Actuators B: Chemical, 97(2-3), 373-378.
[87] Salimi, A., Compton, R. G., & Hallaj, R. (2004). Glucose biosensor prepared by glucose oxidase encapsulated sol-gel and carbon-nanotube-modified basal plane pyrolytic graphite electrode. Analytical biochemistry, 333(1), 49-56.
[88] Radinović, K., Milikić, J., Stamenović, U., Vodnik, V., Otoničar, M., Škapin, S., & Šljukić, B. (2021). Tailoring gold-conducting polymer nanocomposites for sensors applications: Proof of concept for As (III) sensing in aqueous media. Synthetic Metals, 278, 116834.
[89] Maghsoudi, S., & Mohammadi, A. (2020). Reduced graphene oxide nanosheets decorated with cobalt oxide nanoparticles: A nonenzymatic electrochemical approach for glucose detection. Synthetic Metals, 269, 116543.
[90] Li, F., Ni, B., Zheng, Y., Huang, Y., & Li, G. (2021). A simple and efficient voltammetric sensor for dopamine determination based on ZnO nanorods/electro-reduced graphene oxide composite. Surfaces and Interfaces, 26, 101375.
[91] Li, Q., Wu, J. T., Liu, Y., Qi, X. M., Jin, H. G., Yang, C., & He, Q. G. (2021). Recent advances in black phosphorus-based electrochemical sensors: A review. Analytica Chimica Acta, 1170, 338480.
[92] Ibrahim, H., & Temerk, Y. (2020). Synergistic electrocatalytic activity of In2O3@ FMWCNTs nanocomposite for electrochemical quantification of dobutamine in clinical patient blood and in injection dosage form. Talanta, 208, 120362.
[93] Li, Q., Xia, Y., Wan, X., Yang, S., Cai, Z., Ye, Y., & Li, G. (2020). Morphology-dependent MnO2/nitrogen-doped graphene nanocomposites for simultaneous detection of trace dopamine and uric acid. Materials Science and Engineering: C, 109, 110615.
[94] Ameer, Q., & Adeloju, S. B. (2005). Polypyrrole-based electronic noses for environmental and industrial analysis. Sensors and Actuators B: Chemical, 106(2), 541-552.
[95] Ostovar, S., Maghsoudi, S., & Mousavi, M. (2021). Development of a sensitive voltammetric sensor for diltiazem determination in biological samples using MWCNT/PPy-PBA modified glassy carbon electrode. Synthetic Metals, 281, 116928.
[96] Amiri, H., Rezapour, F., Bagatpour A. (2014). Extraction and voltammetric measurement of phenylephrine using functionalized carbon nanoparticles. Journal of Applied Chemistry, 93-101, [In Persian].
[97] Knochen, M., & Giglio, J. (2004). Flow-injection determination of phenylephrine hydrochloride in pharmaceutical dosage forms with on-line solid-phase extraction and spectrophotometric detection. Talanta, 64(5), 1226-1232.
[98] Khanna, A. K., Saha, A. K., & Segal, S. (2023). Association of the exclusive use of intraoperative phenylephrine for treatment of hypotension with the risk of acute kidney injury after noncardiac surgery. Anaesthesia Critical Care & Pain Medicine, 42(5), 101224.
[99] Ahmed, I. S., & Amin, A. S. (2007). Spectrophotometric microdetermination of phenylephrine hydrochloride in pure and in pharmaceutical formulations using haematoxylin. Journal of molecular liquids, 130(1-3), 84-87.
[100] Arancibia, J. A., Nepote, A. J., Escandar, G. M., & Olivieri, A. C. (2000). Spectrofluorimetric determination of phenylephrine in the presence of a large excess of paracetamol. Analytica chimica acta, 419(2), 159-168.
[101] Ptáček, P., Klíma, J., & Macek, J. (2007). Development and validation of a liquid chromatography–tandem mass spectrometry method for the determination of phenylephrine in human plasma and its application to a pharmacokinetic study. Journal of Chromatography B, 858(1-2), 263-268.
[102] Gholivand, M. B., Malekzadeh, G., & Torkashvand, M. (2013). Enhancement effect of sodium-dodecyl sulfate on the anodic stripping voltammetric signal of phenylephrine hydrochloride at carbon paste electrode. Journal of Electroanalytical Chemistry, 704, 50-56.
[103] Perlado, J. C., Zapardiel, A., Bermejo, E., Perez, J. A., & Hernandez, L. (1995). Determination of phenylephrine with a modified carbon paste electrode. Analytica chimica acta, 305(1-3), 83-90.
[104] Zhu, Y. H., Zhang, Z. L., Zhao, W., & Pang, D. W. (2006). Voltammetric behavior and determination of phenylephrine at a glassy carbon electrode modified with multi-wall carbon nanotubes. Sensors and Actuators B: Chemical, 119(1), 308-314.
[105] Shahrokhian, S., Jokar, E., & Ghalkhani, M. (2010). Electrochemical determination of piroxicam on the surface of pyrolytic graphite electrode modified with a film of carbon nanoparticle-chitosan. Microchimica Acta, 170, 141-146.
[106] Amiri, M., Ghaffari, S., Bezaatpour, A., & Marken, F. (2012). Carbon nanoparticle–chitosan composite electrode with anion, cation, and neutral binding sites: Dihydroxybenzene selectivity. Sensors and Actuators B: Chemical, 162(1), 194-200.
[107] Chen, W., Deng, Z., Zhu, J., Yuan, L., Li, S., Zhang, Y., & Ye, W. (2023). Rosuvastatin suppresses TNF-α-induced matrix catabolism, pyroptosis and senescence via the HMGB1/NF-κB signaling pathway in nucleus pulposus cells: Role of rosuvastatin in alleviating intervertebral disc degeneration. Acta Biochimica et Biophysica Sinica, 55(5), 795.
[108] Alam, S., Gierden, K., Ghaffarejad, S., Dixit, M., Sanchez, P., Thio, M., & Zemljic-Harpf, A. (2023). Male and female mice display sex differences in lipid metabolism: Long-term atorvastatin or rosuvastatin administration impaired locomotive activity and cardiac relaxation in both sexes. Physiology, 38(S1), 5731964.
[109] Zhang, J., Gong, Y., Peng, J., Han, J., Li, F., Song, L., & Qiao, C. (2023). Therapeutic evaluation of rosuvastatin on lipids and endothelial cell functionalities in coronary artery lesions coinciding with hyperlipidemia. American Journal of Translational Research.;15(5):3152.
[110] Zhang, J., Gong, Y., Peng, J., Han, J., Li, F., Song, L., & Qiao, C. (2023). Dose study of rosuvastatin calcium in the treatment of coronary heart disease and hyperlipidemia. American Journal of Translational Research, 15(5), 3403.
[111] Alazzeh, O., & M Roman, Y. (2023). The frequency of rs2231142 in ABCG2 among Native Hawaiian and Pacific Islander subgroups: implications for personalized rosuvastatin dosing. Pharmacogenomics, 24(3), 173-182.
[112] El-Zahry, M. R., & Ali, M. F. (2019). Enhancement effect of reduced graphene oxide and silver nanocomposite supported on poly brilliant blue platform for ultra-trace voltammetric analysis of rosuvastatin in tablets and human plasma. RSC advances, 9(13), 7136-7146.
[113] Decher, G., & Hong, J. D. (1991, June). Buildup of ultrathin multilayer films by a self‐assembly process, 1 consecutive adsorption of anionic and cationic bipolar amphiphiles on charged surfaces. In Makromolekulare Chemie. Macromolecular Symposia (Vol. 46, No. 1, pp. 321-327). Basel: Hüthig & Wepf Verlag.
[114] Zaaba, N. I., Foo, K. L., Hashim, U., Tan, S. J., Liu, W. W., & Voon, C. H. (2017). Synthesis of graphene oxide using modified hummers method: solvent influence. Procedia engineering, 184, 469-477.
[115] Zidan, M., Zawawi, R. M., Erhayem, M., & Salhin, A. (2014). Electrochemical detection of paracetamol using graphene oxide-modified glassy carbon electrode. Int. J. Electrochem. Sci, 9, 7605-7613.
[116] Zhou, M., Wang, Y., Zhai, Y., Zhai, J., Ren, W., Wang, F., & Dong, S. (2009). Controlled synthesis of large‐area and patterned electrochemically reduced graphene oxide films. Chemistry–A European Journal, 15(25), 6116-6120.
[117] Tiwari, P., Kumar, A., & Prakash, R. (2015). Electrochemical detection of azidothymidine on modified probes based on chitosan stabilised silver nanoparticles hybrid material. RSC advances, 5(109), 90089-90097.
[118] M. R. El-Zahry, A comparative study of sterically and electro-statically stabilized silver nanoparticles for the determination of muscle relaxant tizanidine: Insights of localized surface plasmon resonance, surface enhanced Raman spectroscopy and electrocatalytic activity, Talanta, 2018, 186, 229.
[119] Zipes, D. P. (2018). Braunwald's heart disease: a textbook of cardiovascular medicine. BMH Medical Journal-ISSN 2348–392X, 5(2), 63-63.
[120] Rahhal, A., Khir, F., Orabi, B., Chbib, S., Al-Khalaila, O., Abdelghani, M. S., & Arabi, A. R. (2022). A comparative study of high-intensity rosuvastatin versus atorvastatin therapy post-acute coronary syndrome using real-world data. Current Problems in Cardiology, 47(7), 100956.
[121] Zhou, L., Hu, X., Zhang, H., Lu, H., Lin, Y., Wang, W., & Dong, H. (2023). Effects of atorvastatin and rosuvastatin on dysfunctional coronary circulation in patients with ST-segment elevation myocardial infarction. Journal of International Medical Research, 51(6), 03000605231182547.
[122] Pinal-Fernandez, I., Casal-Dominguez, M., & Mammen, A. L. (2018). Statins: pros and cons. Medicina Clínica (English Edition), 150(10), 398-402.
[123] Kolly, P., & Dufour, J. F. (2016). Surveillance for hepatocellular carcinoma in patients with NASH. Diagnostics, 6(2), 22.
[124] Sumida, Y., Seko, Y., Yoneda, M., & Japan Study Group of NAFLD (JSG‐NAFLD). (2017). Novel antidiabetic medications for non‐alcoholic fatty liver disease with type 2 diabetes mellitus. Hepatology research, 47(4), 266-280.
[125] Giallourakis, C. C., Rosenberg, P. M., & Friedman, L. S. (2002). The liver in heart failure. Clinics in liver disease, 6(4), 947-967.
[126] Forner, A., & Reig, M. (2018). Carcinoma Bruix JHepatocellular. Lancet, 391(10127), 1301-14.
[127] El-Ganainy, S. O., El-Mallah, A., Abdallah, D., Khattab, M. M., El-Khatib, A. S., & El-Din, M. M. M. (2019). A novel investigation of statins myotoxic mechanism: effect of atorvastatin on respiratory muscles in hypoxic environment. Toxicology Letters, 305, 58-64.
[128] El–Serag, H. B., Hampel, H., & Javadi, F. (2006). The association between diabetes and hepatocellular carcinoma: a systematic review of epidemiologic evidence. Clinical Gastroenterology and Hepatology, 4(3), 369-380.
[129] Vaughan, C. J., Gotto, A. M., & Basson, C. T. (2000). The evolving role of statins in the management of atherosclerosis. Journal of the American College of Cardiology, 35(1), 1-10.
[130] Kostner, G. M., Gavish, D., Leopold, B., Bolzano, K., Weintraub, M. S., & Breslow, J. L. (1989). HMG CoA reductase inhibitors lower LDL cholesterol without reducing Lp (a) levels. Circulation, 80(5), 1313-1319.
[131] Pitt, B., Mancini, G. J., Ellis, S. G., Rosman, H. S., Park, J. S., Mcgovern, M. E., & PLAC I Investigators. (1995). Pravastatin limitation of atherosclerosis in the coronary arteries (PLAC I): reduction in atherosclerosis progression and clinical events. Journal of the American College of Cardiology, 26(5), 1133-1139.
[132] Kalate Bojdi, M., Behbahani, M., Ranjbari Koloyi, S. (2022). Application of a new electrochemical sensor based on carbon paste electrode with NiFe2O4 and cross-linked chitosan composite for trace detection of atorvastatin. Applied Chemistry, 17(64), 169-188, [In Pesian].
[133] Liu, Z., Zhong, F., Wu, Z., Pang, W., He, J., Deng,M., Huang, S., Cao, J., Yan, Z., Jin, M. & Shui, L.(2025). Disposable electrochemical aptasensor withmesoporous carbon spheres modified screen-printed dual-working electrodes for Pb2+ and Hg2+ detection.Sensors and Actuators B: Chemical, 422, 136558.
[134] Altuntas, T. G., & Erk, N. (2004). Liquid chromatographic determination of atorvastatin in bulk drug, tablets, and human plasma. Journal of liquid chromatography & related technologies, 27(1), 83-93.
[135] Farahani, H., Norouzi, P., Beheshti, A., Sobhi, H. R., Dinarvand, R., & Ganjali, M. R. (2009). Quantitation of atorvastatin in human plasma using directly suspended acceptor droplet in liquid–liquid–liquid microextraction and high-performance liquid chromatography-ultraviolet detection. Talanta, 80(2), 1001-1006.
[136] Baghdady, Y. Z., Al-Ghobashy, M. A., Abdel-Aleem, A. A. E., & Weshahy, S. A. (2013). Spectrophotometric and TLC-densitometric methods for the simultaneous determination of Ezetimibe and Atorvastatin calcium. Journal of advanced research, 4(1), 51-59.
[137] Polagani, S. R., Pilli, N. R., Gajula, R., & Gandu, V. (2013). Simultaneous determination of atorvastatin, metformin and glimepiride in human plasma by
LC–MS/MS and its application to a human pharmacokinetic study. Journal of Pharmaceutical Analysis, 3(1), 9-19.
[138] Hermann, M., Christensen, H., & Reubsaet, J. L. E. (2005). Determination of atorvastatin and metabolites in human plasma with solid-phase extraction followed by LC–tandem MS. Analytical and bioanalytical chemistry, 382, 1242-1249.
[139] AlShehri, M. M. (2012). A validated capillary electrophoresis method for simultaneous determination of ezetimibe and atorvastatin in pharmaceutical formulations. Saudi pharmaceutical journal, 20(2), 143-148.
[140] Dogan-Topal, B., Uslu, B., & Ozkan, S. A. (2007). Investigation of electrochemical behavior of lipid lowering agent atorvastatin calcium in aqueous media and its determination from pharmaceutical dosage forms and biological fluids using boron-doped diamond and glassy carbon electrodes. Combinatorial chemistry & high throughput screening, 10(7), 571-582.
[141] Saber, A. L. (2013). A PVC membrane sensor for potentiometric determination of atorvastatin in biological samples and pharmaceutical preparations. Electroanalysis, 25(12), 2707-2714.
[142] Dourandish, Z., Beitollahi, H., & Sheikhshoaie, I. (2023). Simultaneous voltammetric determination of epinine and venlafaxine using disposable
screen-printed graphite electrode modified by bimetallic Ni-Co-metal–organic-framework nanosheets. Molecules, 28(5), 2128.
[143] Martı́nez-Mir, I., Palop, V., Morales-Olivas, F. J., Estañ, L., & Rubio, E. (1998). The effects of epinine on arterial blood pressure and regional vascular resistances in anesthetized rats. General Pharmacology: The Vascular System, 31(1), 75-79.
[144] Docci, D., Pistocchi, E., Turci, F., & Baldrati, L. (1986). Effect of ibopamine on the progression of chronic renal failure. Clinical nephrology, 26(3), 121-124.
[145] Carpenter, J. F. (1993). An improved synthesis of 5, 6-diacetoxy-N-methylindole and of epinine. The Journal of Organic Chemistry, 58(6), 1607-1609.
[146] Hua, C., Lee, H. K., & Hsieh, A. K. (1994). Determination of epinine in human urine by high‐performance liquid chromatography coupled with electrochemical detection using carbon fiber microelectrodes. Electroanalysis, 6(11‐12), 1147-1149.
[147] Boomsma, F., Alberts, G., Van Der Hoorn, F. A. J., in't Veld, A. M., & Schalekamp, M. A. D. H. (1992). Simultaneous determination of free catecholamines and epinine and estimation of total epinine and dopamine in plasma and urine by high-performance liquid chromatography with fluorimetric detection. Journal of Chromatography B: Biomedical Sciences and Applications, 574(1), 109-117.
[148] Hicks, D. R., Wolaniuk, D., Russell, A., Cavanaugh, N., & Kraml, M. (1994). A high-performance liquid chromatographic method for the simultaneous determination of venlafaxine and O-desmethylvenlafaxine in biological fluids. Therapeutic drug monitoring, 16(1), 100-107.
[149] Raghubabu, K., Swarup, L. S., Kalyanaramu, B., Rao, M. N., & Ramdas, C. (2012). Simple and inexpensive methods development for determination of venlafaxine hydrochloride from its solid dosage forms by visible spectrophotometry. E-Journal of Chemistry, 9(3), 1645-1654.
[150] Wu, H., Yuan, B., & Liu, Y. M. (2011). Chiral capillary electrophoresis–mass spectrometry of tetrahydroisoquinoline-derived neurotoxins: Observation of complex stereoisomerism. Journal of chromatography A, 1218(20), 3118-3123.
[151] Rudaz, S., Stella, C., Balant-Gorgia, A. E., Fanali, S., & Veuthey, J. L. (2000). Simultaneous stereoselective analysis of venlafaxine and O-desmethylvenlafaxine enantiomers in clinical samples by capillary electrophoresis using charged cyclodextrins. Journal of pharmaceutical and biomedical analysis, 23(1), 107-115.
[152] Al Lawati, H. A., Varma, G. B., & Suliman, F. E. O. (2013). High‐throughput method for the analysis of venlafaxine in pharmaceutical formulations and biological fluids, using a tris (2, 2′‐bipyridyl) ruthenium (II)–peroxydisulphate chemiluminescence system in a two‐chip device. Luminescence, 28(1), 44-49.
[153] Mazloum-Ardakani, M., Beitollahi, H., Ganjipour, B., & Naeimi, H. (2010). Novel carbon nanotube paste electrode for simultaneous determination of norepinephrine, uric acid and d-penicillamine. International Journal of Electrochemical Science, 5(4), 531-546.
[154] Alavi-Tabari, S. A., Khalilzadeh, M. A., & Karimi-Maleh, H. (2018). Simultaneous determination of doxorubicin and dasatinib as two breast anticancer drugs uses an amplified sensor with ionic liquid and ZnO nanoparticle. Journal of electroanalytical chemistry, 811, 84-88.
[155] Hosseini Fakhrabad, A., Sanavi Khoshnood, R., Abedi, M. R., & Ebrahimi, M. (2021). Fabrication a composite carbon paste electrodes (CPEs) modified with multi-wall carbon nano-tubes (MWCNTs/N, N-Bis (salicyliden)-1, 3-propandiamine) for determination of lanthanum (III). Eurasian Chem. Commun, 3, 627-634.
[156] Joshi, P., Mehtab, S., Zaidi, M. G. H., Tyagi, T., & Bisht, A. (2020). Development of polyindole/tungsten carbide nanocomposite-modified electrodes for electrochemical quantification of chlorpyrifos. Journal of Nanostructure in Chemistry, 10, 33-45.
[157] Mohammadi, S., Beitollahi, H., & Mohadesi, A. (2013). Electrochemical behaviour of a modified carbon nanotube paste electrode and its application for simultaneous determination of epinephrine, uric acid and folic acid. Sensor Letters, 11(2), 388-394.
[158] Karimi-Maleh, H., Karimi, F., Orooji, Y., Mansouri, G., Razmjou, A., Aygun, A., & Sen, F. (2020). A new nickel-based co-crystal complex electrocatalyst amplified by NiO dope Pt nanostructure hybrid; a highly sensitive approach for determination of cysteamine in the presence of serotonin. Scientific reports, 10(1), 11699.
[159] Shamsi, A., & Ahour, F. (2021). Electrochemical sensing of thioridazine in human serum samples using modified glassy carbon electrode. Advanced Journal of Chemistry-Section A, 4(1), 22-31.
[160] John, A., Benny, L., Cherian, A. R., Narahari, S. Y., Varghese, A., & Hegde, G. (2021). Electrochemical sensors using conducting polymer/noble metal nanoparticle nanocomposites for the detection of various analytes: A review. Journal of Nanostructure in Chemistry, 11, 1-31.
[161] Mohanraj, J., Durgalakshmi, D., Rakkesh, R. A., Balakumar, S., Rajendran, S., & Karimi-Maleh, H. (2020). Facile synthesis of paper based graphene electrodes for point of care devices: A double stranded DNA (dsDNA) biosensor. Journal of Colloid and Interface Science, 566, 463-472.
[162] Bijad, M., Hojjati-Najafabadi, A., Asari-Bami, H., Habibzadeh, S., Amini, I., & Fazeli, F. J. E. C. C. (2021). An overview of modified sensors with focus on electrochemical sensing of sulfite in food samples. Eurasian Chemical Communications, 3(2), 116-138.
[163] Lohrasbi-Nejad, A. (2022). Electrochemical strategies for detection of diazinon. Journal of Electrochemical Science and Engineering, 12(6), 1041-1059.
[164] Beitollahi, H., Dourandish, Z., Tajik, S., Sharifi, F., & Jahani, P. M. (2022). Electrochemical sensor based on Ni-Co layered double hydroxide hollow nanostructures for ultrasensitive detection of sumatriptan and naproxen. Biosensors, 12(10), 872.
[165] Wang, Y., Liu, Y., Wang, H., Liu, W., Li, Y., Zhang, J., & Yang, J. (2019). Ultrathin NiCo-MOF nanosheets for high-performance supercapacitor electrodes. ACS Applied Energy Materials, 2(3), 2063-2071.
[166] Selcuk, O., Unal, D. N., Dindar, Ç. K., Süslü, İ., & Uslu, B. (2022). Electrochemical determination of phosphodiesterase-3 enzyme inhibitor drug Milrinone with nanodiamond modified paste electrode. Microchemical Journal, 181, 107720.
[167] Arumugam, B., Muthukutty, B., Chen, S. M., Subramanian, B. T., Biju, V. M. N., & Ramaraj, S. K. (2020). Electrochemical reduction of Procardia drug with aid of silver phosphate/strontium phosphate nanoparticles (AgP/SrP NPs) modified glassy carbon electrode. Microchemical Journal, 159, 105565.
[168] Dehnavi, A., & Soleymanpour, A. (2020). Highly sensitive voltammetric electrode for the trace measurement of methyldopa based on a pencil graphite modified with phosphomolibdate/graphene oxide. Microchemical Journal, 157, 104969.
[169] Hareesha, N., & Manjunatha, J. G. (2020). Fast and enhanced electrochemical sensing of dopamine at cost-effective poly (DL-phenylalanine) based graphite electrode. Journal of Electroanalytical Chemistry, 878, 114533.
[170] Stanković, D. M., Milanović, Z., Švorc, Ľ., Stanković, V., Janković, D., Mirković, M., & Đurić, S. V. (2021). Screen printed diamond electrode as efficient “point-of-care” platform for submicromolar determination of cytostatic drug in biological fluids and pharmaceutical product. Diamond and Related Materials, 113, 108277.
[171] Asran, A. M., Mohamed, M. A., Eldin, G. M., Mishra, R. K., & Errachid, A. (2021). Self-assembled ruthenium decorated electrochemical platform for sensitive and selective determination of amisulpride in presence of co-administered drugs using safranin as a mediator. Microchemical Journal, 164, 106061.
[172] Li, Y., Li, Y., Wang, Y., Ma, G., Liu, X., Li, Y., & Soar, J. (2020). Application of zeolitic imidazolate frameworks (ZIF-8)/ionic liquid composites modified nano-carbon paste electrode as sensor for electroanalytical sensing of 1-hydroxypyrene. Microchemical Journal, 159, 105433.
[173] Raeisi-Kheirabadi, N., Nezamzadeh-Ejhieh, A., & Aghaei, H. (2021). A brief study on the kinetic of the voltammetric behavior of the modified carbon paste electrode with NiO nanoparticles towards loratadine as a carboxylate-amidic drug compound. Microchemical Journal, 162, 105869.
[174] Chikere, C. O., Hobben, E., Faisal, N. H., Kong-Thoo-Lin, P., & Fernandez, C. (2021). Electroanalytical determination of gallic acid in red and white wine samples using cobalt oxide nanoparticles-modified carbon-paste electrodes. Microchemical journal, 160, 105668.
[175] Zoubir, J., Radaa, C., Bougdour, N., Idlahcen, A., Bakas, I., & Assabbane, A. (2021). Electro-detection of the antibacterial metronidazole using zinc oxide nanoparticles formed on graphitic carbon sheets. Analytical application: Human serum and urine. Materials Science for Energy Technologies, 4, 177-188.
[176] Yıldırım, S., Erkmen, C., & Uslu, B. (2022). Novel trends in analytical methods for β-blockers: An overview of applications in the last decade. Critical reviews in analytical chemistry, 52(1), 131-169.
[177] Goodman, L. S. (1996). Goodman and Gilman's the pharmacological basis of therapeutics (Vol. 1549, 1361-1373). New York: McGraw-Hill.
[178] Beitollahi, H., & Sheikhshoaie, I. (2011). Electrocatalytic and simultaneous determination of isoproterenol, uric acid and folic acid at molybdenum (VI) complex-carbon nanotube paste electrode. Electrochimica Acta, 56(27), 10259-10263.
[179] Mazloum-Ardakani, M., Naser-Sadrabadi, A., Sheikh-Mohseni, M. A., Naeimi, H., Benvidi, A., & Khoshroo, A. (2013). Oxidized multiwalled carbon nanotubes for improving the electrocatalytic activity of a Schiff base modified electrode in determination of isoprenaline. Journal of Electroanalytical Chemistry, 705, 75-80.
[180] Beitollahi, H., Mohadesi, A., Mohammadi, S., & Akbari, A. (2012). Electrochemical behavior of a carbon paste electrode modified with 5-amino-3′, 4′-dimethyl-biphenyl-2-ol/carbon nanotube and its application for simultaneous determination of isoproterenol, acetaminophen and N-acetylcysteine. Electrochimica Acta, 68, 220-226.
[181] Beitollahi, H., & Sheikhshoaie, I. (2011). Electrocatalytic oxidation and determination of epinephrine in the presence of uric acid and folic acid at multiwalled carbon nanotubes/molybdenum (VI) complex modified carbon paste electrode. Analytical Methods, 3(8), 1810-1814.
[182] Shi, P., Miao, X., Yao, H., Lin, S., Wei, B., Chen, J., & Tang, Y. (2013). Characterization of poly (5-hydroxytryptamine)-modified glassy carbon electrode and applications to sensing of norepinephrine and uric acid in preparations and human urines. Electrochimica Acta, 92, 341-348.
[183] Beitollahi, H., & Mostafavi, M. (2014). Nanostructured base electrochemical sensor for simultaneous quantification and voltammetric studies of levodopa and carbidopa in pharmaceutical products and biological samples. Electroanalysis, 26(5), 1090-1098.
[184] Kazemipour, M., Ansari, M., Mohammadi, A., Beitollahi, H., & Ahmadi, R. (2009). Use of adsorptive square-wave anodic stripping voltammetry at carbon paste electrode for the determination of amlodipine besylate in pharmaceutical preparations. Journal of analytical chemistry, 64, 65-70.
[185] Novoselov, K. S., Geim, A. K., Morozov, S. V., Jiang, D. E., Zhang, Y., Dubonos, S. V., & Firsov, A. A. (2004). Electric field effect in atomically thin carbon films. Science, 306(5696), 666-669.
[186] Gómez-Navarro, C., Weitz, R. T., Bittner, A. M., Scolari, M., Mews, A., Burghard, M., & Kern, K. (2007). Electronic transport properties of individual chemically reduced graphene oxide sheets. Nano letters, 7(11), 3499-3503.
[187] Deng, D., Yu, L., Pan, X., Wang, S., Chen, X., Hu, P., & Bao, X. (2011). Size effect of graphene on electrocatalytic activation of oxygen. Chemical communications, 47(36), 10016-10018.
[188] Casero, E., Parra-Alfambra, A. M., Petit-Domínguez, M. D., Pariente, F., Lorenzo, E., & Alonso, C. (2012). Differentiation between graphene oxide and reduced graphene by electrochemical impedance spectroscopy (EIS). Electrochemistry Communications, 20, 63-66.
[189] Mohammadi, S. Z., Beitollahi, H., & Fadaeian, H. (2018). Voltammetric determination of isoproterenol using a graphene oxide nano sheets paste electrode. Journal of Analytical Chemistry, 73, 705-712.