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參考文獻
[1] Z. Mengting, T.A. Kurniawan, Y. Yanping, R. Avtar, M.H.D. Othman, (2020) 2D Graphene oxide (GO) doped p-n type BiOI/Bi2WO6 as a novel composite for photodegradation of bisphenol A (BPA) in aqueous solutions under UV-vis irradiation, Materials Science and Engineering: C, 108 110420.
[2] N.P. Kalogiouri, A. Tsalbouris, A. Kabir, K.G. Furton, V.F. Samanidou, (2020) Synthesis and application of molecularly imprinted polymers using sol–gel matrix imprinting technology for the efficient solid-phase extraction of BPA from water, Microchemical Journal, 157 104965.
[3] S.H. Lopez, J. Dias, H. Mol, A. de Kok, (2020) Selective multiresidue determination of highly polar anionic pesticides in plant-based milk, wine and beer using hydrophilic interaction liquid chromatography combined with tandem mass spectrometry, Journal of Chromatography A, 1625 461226.
[4] A.K. El-Deen, K. Shimizu, (2019) Deep eutectic solvent as a novel disperser in dispersive liquid-liquid microextraction based on solidification of floating organic droplet (DLLME-SFOD) for preconcentration of steroids in water samples: Assessment of the method deleterious impact on the environment using Analytical Eco-Scale and Green Analytical Procedure Index, Microchemical Journal, 149 103988.
[5] M. Şaylan, B.T. Zaman, E. Gülhan Bakırdere, S. Bakırdere, (2020) Determination of trace nickel in chamomile tea and coffee samples by slotted quartz tube-flame atomic absorption spectrometry after preconcentration with dispersive liquid-liquid microextraction method using a Schiff base ligand, Journal of Food Composition and Analysis, 88 103454.
[6] R. Yangang, J. Wang, B. Grosselin, V. Daële, A. Mellouki, (2018) Kinetic and product studies of Cl atoms reactions with a series of branched Ketones, Journal of Environmental Sciences, 71 271-281 .
[7] S. Biswas, R. Mondal, A. Mukherjee, M. Sarkar, R.K. Kole, (2019) Simultaneous determination and risk assessment of fipronil and its metabolites in sugarcane, using GC-ECD and confirmation by GC-MS/MS, Food Chemistry, 272 559-567.
[8] C.A. Valdez, M.K. Marchioretto, R.N. Leif, S. Hok, (2018) Efficient derivatization of methylphosphonic and aminoethylsXfonic acids related to nerve agents simultaneously in soils using trimethyloxonium tetrafluoroborate for their enhanced, qualitative detection and identification by EI-GC–MS and GC–FPD, Forensic Science International, 288 159-168.
[9] P. Wang, M. Rashid, J. Liu, M. Hu, G. Zhong, (2016) Identification of multi-insecticide residues using GC-NPD and the degradation kinetics of chlorpyrifos in sweet corn and soils, Food Chemistry, 212 420-426.
[10] M.M. Issa, S. M. Taha, A.M. El- Marsafy, M.M.H. Khalil, E.H. Ismail, (2020) Acetonitrile-Ethyl acetate based method for the residue analysis of 373 pesticides in beeswax using LC-MS/MS and GC–MS/MS, Journal of Chromatography B, 1145 122106.
[11] E. Alipanahpour Dil, A. Asfaram, A. Goudarzi, E. Zabihi, H. Javadian, (2020) Biocompatible chitosan-zinc oxide nanocomposite based dispersive micro-solid phase extraction coupled with HPLC-UV for the determination of rosmarinic acid in the extracts of medical plants and water sample, International Journal of Biological Macromolecules, 154 528-537.
[12] S. Vazquez Troche, M.S. Garcı́a Falcón, S. González Amigo, M.A. Lage Yusty, J. Simal Lozano, (2000) Enrichment of benzo[a]pyrene in vegetable oils and determination by HPLC-FL, Talanta, 51 1069-1076.
[13] Y. Liu, B. Zhu, M. Xue, Z. Jiang, X. Guo, (2020) Studies on the chiral separation of pheniramine and its enantioselective pharmacokinetics in rat plasma by HPLC-MS/MS, Microchemical Journal, 156 104989.
[14] J.L. Malvar, J.L. Santos, J. Martín, I. Aparicio, E. Alonso, (2020) Comparison of ultrasound-assisted extraction, QuEChERS and selective pressurized liquid extraction for the determination of metabolites of parabens and pharmaceuticals in sludge, Microchemical Journal, 157 104987.
[15] J. Park, S.K. Park, Y.H. Choi, (2019) Environmental pyrethroid exposure and diabetes in U.S. adults, Environmental Research, 172 399-407.
[16] C. Corcellas, E. Eljarrat, D. Barceló, (2015) First report of pyrethroid bioaccumulation in wild river fish: A case study in Iberian river basins (Spain), Environment International, 75 110-116.
[17] W. Tang, D. Wang, J. Wang, Z. Wu, L. Li, M. Huang, S. Xu, D. Yan, (2018) Pyrethroid pesticide residues in the global environment: An overview, Chemosphere, 191 990-1007.
[18] L. Li, S. Zhou, L. Jin, C. Zhang, W. Liu, (2010) Enantiomeric separation of organophosphorus pesticides by high-performance liquid chromatography, gas chromatography and capillary electrophoresis and their applications to environmental fate and toxicity assays, Journal of Chromatography B, 878 1264-1276.
[19] N.C.P. de Albuquerque, J.V. de Matos, A.R.M. de Oliveira, (2016) In-line coupling of an achiral-chiral column to investigate the enantioselective in vitro metabolism of the pesticide Fenamiphos by human liver microsomes, Journal of Chromatography A, 1467 326-334.
[20] S. Jiménez-Jiménez, N. Casado, M. García, M.L. Marina, (2019) Enantiomeric analysis of pyrethroids and organophosphorus insecticides, Journal of Chromatography A, 1605 360345.
[21] W. Tang, D. Wang, J. Wang, Z. Wu, L. Li, M. Huang, S. Xu, D. Yan, (2018) Pyrethroid pesticide residues in the global environment: An overview, Chemosphere, 191 990-1007.
[22] L.H. Nowell, J.E. Norman, C.G. Ingersoll, P.W. Moran, (2016) Development and application of freshwater sediment-toxicity benchmarks for currently used pesticides, Science of The Total Environment, 550 835-850.
[23] A.M. Saillenfait, D. Ndiaye, J.P. Sabaté, (2015) Pyrethroids: Exposure and health effects – An update, International Journal of Hygiene and Environmental Health, 218 281-292.
[24] N. Lu, X. He, T. Wang, S. Liu, X. Hou, (2018) Magnetic solid-phase extraction using MIL-101(Cr)-based composite combined with dispersive liquid-liquid microextraction based on solidification of a floating organic droplet for the determination of pyrethroids in environmental water and tea samples, Microchemical Journal, 137 449-455.
[25] J.P. dos Anjos, J.B. de Andrade, (2014) Determination of nineteen pesticides residues (organophosphates, organochlorine, pyrethroids, carbamate, thiocarbamate and strobilurin) in coconut water by SDME/GC–MS, Microchemical Journal, 112 119-126.
[26] T.G. Schwanz, C.K. Carpilovsky, G.C.C. Weis, I.H. Costabeber, (2019) Validation of a multi-residue method and estimation of measurement uncertainty of pesticides in drinking water using gas chromatography-mass spectrometry and liquid chromatography-tandem mass spectrometry, Journal of Chromatography A, 1585 10-18.
[27] X. Yang, H. Zhang, Y. Liu, J. Wang, Y.C. Zhang, A.J. Dong, H.T. Zhao, C.H. Sun, J. Cui, (2011) Multiresidue method for determination of 88 pesticides in berry fruits using solid-phase extraction and gas chromatography–mass spectrometry: Determination of 88 pesticides in berries using SPE and GC–MS, Food Chemistry, 127 855-865.
[28] Y. Jabali, M. Millet, M. El-Hoz, (2019) Optimization of a DI-SPME-GC–MS/MS method for multi-residue analysis of pesticides in waters, Microchemical Journal, 147 83-92.
[29] M. Zhang, J. He, Y. Shen, W. He, Y. Li, D. Zhao, S. Zhang, (2018) Application of pseudo-template molecularly imprinted polymers by atom transfer radical polymerization to the solid-phase extraction of pyrethroids, Talanta, 178 1011-1016.
[30] Y. Yamini, M. Safari, (2019) Magnetic Zink-based metal organic framework as advance and recyclable adsorbent for the extraction of trace pyrethroids, Microchemical Journal, 146 134-141.
[31] R. Perestrelo, P. Silva, P. Porto-Figueira, J.A.M. Pereira, C. Silva, S. Medina, J.S. Câmara, (2019) QuEChERS - Fundamentals, relevant improvements, applications and future trends, Analytica Chimica Acta, 1070 1-28.
[32] M.W. Kujawski, Ż. Bargańska, K. Marciniak, E. Miedzianowska, J.K. Kujawski, M. Ślebioda, J. Namieśnik, (2014) Determining pesticide contamination in honey by LC-ESI-MS/MS – Comparison of pesticide recoveries of two liquid–liquid extraction based approaches, LWT - Food Science and Technology, 56 517-523.
[33] M. Arvand, E. Bozorgzadeh, S. Shariati, (2013) Two-phase hollow fiber liquid phase microextraction for preconcentration of pyrethroid pesticides residues in some fruits and vegetable juices prior to gas chromatography/mass spectrometry, Journal of Food Composition and Analysis, 31 275-283.
[34] H. Qian, L. Hu, C. Liu, H. Wang, H. Gao, W. Zhou, (2018) Determination of four pyrethroid insecticides in water samples through membrane emulsification-assisted liquid–liquid microextraction based on solidification of floating organic droplets, Journal of Chromatography A, 1559 86-94.
[35] J.P. dos Anjos, J.B. de Andrade, (2014) Determination of nineteen pesticides residues (organophosphates, organochlorine, pyrethroids, carbamate, thiocarbamate and strobilurin) in coconut water by SDME/GC–MS, Microchemical Journal, 112 119-126.
[36] A. Szarka, D. Turková, S. Hrouzková, (2018) Dispersive liquid-liquid microextraction followed by gas chromatography-mass spectrometry for the determination of pesticide residues in nutraceutical drops, Journal of Chromatography A, 1570 126-134.
[37] W. Deng, L. Yu, X. Li, J. Chen, X. Wang, Z. Deng, Y. Xiao, (2019) Hexafluoroisopropanol-based hydrophobic deep eutectic solvents for dispersive liquid-liquid microextraction of pyrethroids in tea beverages and fruit juices, Food Chemistry, 274 891-899.
[38] I. Rykowska, J. Ziemblińska, I. Nowak, (2018) Modern approaches in dispersive liquid-liquid microextraction (DLLME) based on ionic liquids: A review, Journal of Molecular Liquids, 259 319-339.
[39] M. Torbati, M.A. Farajzadeh, M. Torbati, A.A.A. Nabil, A. Mohebbi, M.R. Afshar Mogaddam, (2018) Development of salt and pH-induced solidified floating organic droplets homogeneous liquid-liquid microextraction for extraction of ten pyrethroid insecticides in fresh fruits and fruit juices followed by gas chromatography-mass spectrometry, Talanta, 176 565-572.
[40] A. Marklund, B. Andersson, P. Haglund, (2003) Screening of organophosphorus compounds and their distribution in various indoor environments, Chemosphere, 53 1137-1146.
[41] L. Pang, H. Yang, P. Yang, H. Zhang, J. Zhao, (2017) Trace determination of organophosphate esters in white wine, red wine, and beer samples using dispersive liquid-liquid microextraction combined with ultra-high-performance liquid chromatography–tandem mass spectrometry, Food Chemistry, 229 445-451.
[42] K. Betts, (2008) Does a key PBDE break down in the environment?, Environmental Science and Technology, 42 6781.
[43] H. Wolschke, R. Sühring, Z. Xie, R. Ebinghaus, (2015) Organophosphorus flame retardants and plasticizers in the aquatic environment: A case study of the Elbe River, Germany, Environmental Pollution, 206 488-493.
[44] S. Lee, H.J. Cho, W. Choi, H.B. Moon, (2018) Organophosphate flame retardants (OPFRs) in water and sediment: Occurrence, distribution, and hotspots of contamination of Lake Shihwa, Korea, Marine Pollution Bulletin, 130 105-112.
[45] S. Lai, Z. Xie, T. Song, J. Tang, Y. Zhang, W. Mi, J. Peng, Y. Zhao, S. Zou, R. Ebinghaus, (2015) Occurrence and dry deposition of organophosphate esters in atmospheric particles over the northern South China Sea, Chemosphere, 127 195-200.
[46] T. Reemtsma, J.B. Quintana, R. Rodil, M. Garcı´a-López, I. Rodrı´guez, (2008) Organophosphorus flame retardants and plasticizers in water and air I. Occurrence and fate, TrAC Trends in Analytical Chemistry, 27 727-737.
[47] H. Matsukami, N.M. Tue, G. Suzuki, M. Someya, L.H. Tuyen, P.H. Viet, S. Takahashi, S. Tanabe, H. Takigami, (2015) Flame retardant emission from e-waste recycling operation in northern Vietnam: Environmental occurrence of emerging organophosphorus esters used as alternatives for PBDEs, Science of The Total Environment, 514 492-499.
[48] S. Mizouchi, M. Ichiba, H. Takigami, N. Kajiwara, T. Takamuku, T. Miyajima, H. Kodama, T. Someya, D. Ueno, (2015) Exposure assessment of organophosphorus and organobromine flame retardants via indoor dust from elementary schools and domestic houses, Chemosphere, 123 17-25.
[49] A.A. Peverly, C. O′Sullivan, L.Y. Liu, M. Venier, A. Martinez, K.C. Hornbuckle, R.A. Hites, (2015) Chicago′s Sanitary and Ship Canal sediment: Polycyclic aromatic hydrocarbons, polychlorinated biphenyls, brominated flame retardants, and organophosphate esters, Chemosphere, 134 380-386.
[50] M. Behl, J.R. Rice, M.V. Smith, C.A. Co, M.F. Bridge, J.H. Hsieh, J.H. Freedman, W.A. Boyd, Editor’s Highlight: Comparative Toxicity of Organophosphate Flame Retardants and Polybrominated Diphenyl Ethers to Caenorhabditiselegans, Toxicological Sciences, 154 241-252.
[51] L. Pang, Y. Yuan, H. He, K. Liang, H. Zhang, J. Zhao, (2016) Occurrence, distribution, and potential affecting factors of organophosphate flame retardants in sewage sludge of wastewater treatment plants in Henan Province, Central China, Chemosphere, 152 245-251.
[52] L.V. Dishaw, C.M. Powers, I.T. Ryde, S.C. Roberts, F.J. Seidler, T.A. Slotkin, H.M. Stapleton, (2011) Is the PentaBDE replacement, tris (1,3-dichloro-2-propyl) phosphate (TDCPP), a developmental neurotoxicant? Studies in PC12 cells, Toxicology and Applied Pharmacology, 256 281-289.
[53] J.D. Meeker, H.M. Stapleton, (2010) House dust concentrations of organophosphate flame retardants in relation to hormone levels and semen quality parameters, Environ Health Perspectives, 118 318-323.
[54] M. Bastiaensen, N. Van den Eede, G. Su, R.J. Letcher, H.M. Stapleton, (2019) A. Covaci, Towards establishing indicative values for metabolites of organophosphate ester contaminants in human urine, Chemosphere, 236 124348.
[55] I. Kosarac, C. Kubwabo, W.G. Foster, (2016) Quantitative determination of nine urinary metabolites of organophosphate flame retardants using solid phase extraction and ultra performance liquid chromatography coupled to tandem mass spectrometry (UPLC-MS/MS), Journal of Chromatography B, 1014 24-30.
[56] M. Bastiaensen, Y. Ait Bamai, A. Araki, N. Van den Eede, T. Kawai, T. Tsuboi, R. Kishi, (2019) A. Covaci, Biomonitoring of organophosphate flame retardants and plasticizers in children: Associations with house dust and housing characteristics in Japan, Environmental Research, 172 543-551.
[57] H. Kim, C.M. Rebholz, E. Wong, J.P. Buckley, (2020) Urinary organophosphate ester concentrations in relation to ultra-processed food consumption in the general US population, Environmental Research, 182 109070.
[58] Y. Zhang, H. Su, M. Ya, J. Li, S.H. Ho, L. Zhao, K. Jian, R.J. Letcher, G. Su, (2019) Distribution of flame retardants in smartphones and identification of current-use organic chemicals including three novel aryl organophosphate esters, Science of The Total Environment, 693 133654.
[59] B. Du, Y. Zhang, H. Chen, M. Shen, W. Zhou, L. Zeng, (2019) Development and validation of a liquid chromatography-tandem mass spectrometry method for the simultaneous determination of 17 traditional and emerging aryl organophosphate esters in indoor dust, Journal of Chromatography A, 1603 199-207.
[60] Y.C. Tsao, Y.C. Wang, S.F. Wu, W.H. Ding, (2011) Microwave-assisted headspace solid-phase microextraction for the rapid determination of organophosphate esters in aqueous samples by gas chromatography-mass spectrometry, Talanta, 84 406-410.
[61] A. Naccarato, A. Tassone, S. Moretti, R. Elliani, F. Sprovieri, N. Pirrone, A. Tagarelli, (2018) A green approach for organophosphate ester determination in airborne particulate matter: Microwave-assisted extraction using hydroalcoholic mixture coupled with solid-phase microextraction gas chromatography-tandem mass spectrometry, Talanta, 189 657-665.
[62] S.P. Chu, W.C. Tseng, P.H. Kong, C.K. Huang, J.H. Chen, P.S. Chen, S.D. Huang, (2015) Up-and-down-shaker-assisted dispersive liquid-liquid microextraction coupled with gas chromatography-mass spectrometry for the determination of fungicides in wine, Food Chemistry, 185 377-382.
[63] R. Frizzarin, F. Maya Alejandro, J. Estela, V. Cerdà, (2016) Fully-automated in-syringe dispersive liquid-liquid microextraction for the determination of caffeine in coffee beverages, Food Chemistry, 212 759-767.
[64] S. Li, L. Hu, K. Chen, H. Gao, (2015) Extensible automated dispersive liquid–liquid microextraction, Analytica Chimica Acta, 872 46-54.
[65] K. Fikarová, B. Horstkotte, H. Sklenářová, F. Švec, P. Solich, (2019) Automated continuous-flow in-syringe dispersive liquid-liquid microextraction of mono-nitrophenols from large sample volumes using a novel approach to multivariate spectral analysis, Talanta, 202 11-20.
[66] F. Maya, B. Horstkotte, J.M. Estela, V. Cerdà, (2014) Automated in-syringe dispersive liquid-liquid microextraction, TrAC Trends in Analytical Chemistry, 59 1-8.
[67] V. Andruch, C.C. Acebal, J. Škrlíková, H. Sklenářová, P. Solich, I.S. Balogh, F. Billes, L. Kocúrová, (2012) Automated on-line dispersive liquid–liquid microextraction based on a sequential injection system, Microchemical Journal, 100 77-82.
[68] A. Shishov, P. Terno, L. Moskvin, A. Bulatov, (2020) In-syringe dispersive liquid-liquid microextraction using deep eutectic solvent as disperser: Determination of chromium (VI) in beverages, Talanta, 206 120209.
[69] M. Roosta, M. Ghaedi, A. Daneshfar, (2014) Optimisation of ultrasound-assisted reverse micelles dispersive liquid-liquid micro-extraction by Box-Behnken design for determination of acetoin in butter followed by high performance liquid chromatography, Food Chemistry, 161 120-126.
[70] M. Carabajal, C.M. Teglia, S. Cerutti, M.J. Culzoni, H.C. Goicoechea, (2020) Applications of liquid-phase microextraction procedures to complex samples assisted by response surface methodology for optimization, Microchemical Journal, 152 104436.
[71] L. Wang, B. Chen, P. Peng, W. Hu, Z. Liu, X. Pei, W. Zhao, C. Zhang, L. Li, W. Huang, (2017) Fluorescence imaging mitochondrial copper(II) via photocontrollable fluorogenic probe in live cells, Chinese Chemical Letters, 28 1965-1968.
[72] F.Y. Wu, S.G. Cao, C.X. Xie, (2012) A highly selective chemosensor for copper ion based on ICT fluorescence, Chinese Chemical Letters, 23 607-610.
[73] E.L. Que, D.W. Domaille, C.J. Chang, (2008) Metals in Neurobiology: Probing Their Chemistry and Biology with Molecular Imaging, Chemical Reviews, 108 1517-1549.
[74] L. Qu, C. Yin, F. Huo, Y. Zhang, Y. Li, (2013) A commercially available fluorescence chemosensor for copper ion and its application in bioimaging, Sensors and Actuators B: Chemical, 183 636-640.
[75] W. Zhang, J. Wei, H. Zhu, K. Zhang, F. Ma, Q. Mei, Z. Zhang, S. Wang, (2012) Self-assembled multilayer of alkyl graphene oxide for highly selective detection of copper(II) based on anodic stripping voltammetry, Journal of Materials Chemistry, 22 22631-22636.
[76] T. Branch, P. Girvan, M. Barahona, L. Ying, (2014) Introduction of a Fluorescent Probe to Amyloid-β to Reveal Kinetic Insights into Its Interactions with Copper(II), Angewandte Chemie International Edition, 54 1227-1230
[77] Y. Yang, F. Huo, C. Yin, Y. Chu, J. Chao, Y. Zhang, J. Zhang, S. Li, H. Lv, A. Zheng, D. Liu, (2013) Combined spectral experiment and theoretical calculation to study the chemosensors of copper and their applications in anion bioimaging, Sensors and Actuators B: Chemical, 177 1189-1197.
[78] J. Makowska, K. Żamojć, D. Wyrzykowski, W. Żmudzińska, D. Uber, M. Wierzbicka, W. Wiczk, L. Chmurzyński, (2016) Probing the binding of Cu2+ ions to a fragment of the Aβ(1–42) polypeptide using fluorescence spectroscopy, isothermal titration calorimetry and molecular dynamics simulations, Biophysical Chemistry, 216 44-50.
[79] E. Tiffany-Castiglioni, S. Hong, Y. Qian, (2011) Copper handling by astrocytes: Insights into neurodegenerative diseases, International Journal of Developmental Neuroscience, 29 811-818.
[80] K. Babayeva, S. Demir, M. Andac, (2017) A novel spectrophotometric method for the determination of copper ion by using a salophen ligand, N,N’-disalicylidene-2,3-diaminopyridine, Journal of Taibah University for Science, 11 808-814.
[81] M.J. Coffey, T.D. Jickells, (1995) Ion Chromatography-Inductively Coupled Plasma-Atomic Emission Spectrometry (IC-ICP-AES) as a Method for Determining Trace Metals in Estuarine Water, Estuarine, Coastal and Shelf Science, 40 379-386.
[82] D. Stanković, G. Roglic, J. Mutic, I. Andjelkovic, M. Markovic, D. Manojlovic, (2011) Determination of Copper in Water by Anodic Stripping Voltammetry Using Cu-DPABA–NA/GCE Modified Electrode, International Journal of Electrochemical Science, 6 5617-5625.
[83] J. Cabon, (2002) Determination of Cu and Mn in seawater by graphite furnace atomic absorption spectrometry with the use of hydrofluoric acid as a chemical modifier, Spectrochimica Acta Part B-Atomic Spectroscopy, 57 939-950.
[84] C. Lei, Z. Wang, Z. Nie, H. Deng, H. Hu, Y. Huang, S. Yao, (2015) Resurfaced fluorescent protein as a sensing platform for label-free detection of copper(II) ion and acetylcholinesterase activity, Analytical Chemistry, 87 1974-1980.
[85] L.H. Jin, C.S. Han, (2014) Ultrasensitive and Selective Fluorimetric Detection of Copper Ions Using Thiosulfate-Involved Quantum Dots, Analytical Chemistry, 86 7209-7213
[86] J. Jo, H.Y. Lee, W. Liu, A. Olasz, C.H. Chen, D. Lee, (2012) Reactivity-based detection of copper(II) ion in water: oxidative cyclization of azoaromatics as fluorescence turn-on signaling mechanism, Journal of the American Chemical Society, 134 16000-16007.
[87] M. Gao, S. Han, Y. Hu, L. Zhang, (2016) Enhanced Fluorescence in Tetraylnitrilomethylidyne-Hexaphenyl Derivative-Functionalized Periodic Mesoporous Organosilicas for Sensitive Detection of Copper(II), The Journal of Physical Chemistry C, 120 9299-9307.
[88] S. Yang, W. Jiang, F. Zhao, L. Xu, Y. Xu, B. Gao, H. Sun, L. Du, Y. Tang, F. Cao, A highly sensitive and selective fluorescent sensor for detection of copper ions based on natural Isorhamnetin from Ginkgo leaves, Sensors and Actuators B: Chemical, 236 386-391.
[89] Y. Zhou, Z. Ma, (2016) A novel fluorescence enhanced route to detect copper(II) by click chemistry-catalyzed connection of Au@SiO2 and carbon dots, Sensors and Actuators B: Chemical, 233 426-430.
[90] J. Chen, Y. Li, K. Lv, W. Zhong, H. Wang, Z. Wu, P. Yi, J. Jiang, (2016) Cyclam-functionalized carbon dots sensor for sensitive and selective detection of copper(II) ion and sulfide anion in aqueous media and its imaging in live cells, Sensors and Actuators B: Chemical, 224 298-306.
[91] Z.C. Liu, J.W. Qi, C. Hu, L. Zhang, W. Song, R.P. Liang, J.D. Qiu, (2015) Cu nanoclusters-based ratiometric fluorescence probe for ratiometric and visualization detection of copper ions, Analytica Chimica Acta, 895 95-103.
[92] T. Liu, Y. Luo, L. Kong, J. Zhu, W. Wang, L. Tan, (2016) Voltammetric detection of Cu2+ using poly(azure A) modified glassy carbon electrode based on mimic peroxidase behavior of copper, Sensors and Actuators B: Chemical, 235 568-574.
[93] K.M. Lee, W.Y. Cheng, C.Y. Chen, J.J. Shyue, C.C. Nieh, C.F. Chou, J.R. Lee, Y.Y. Lee, C.Y. Cheng, S.Y. Chang, T.C. Yang, M.C. Cheng, B.Y. Lin, (2013) Excitation-dependent visible fluorescence in decameric nanoparticles with monoacylglycerol cluster chromophores, Nature Communications, 4 1544-1551. |