[1] Adhikari B., Majumdar S.,
Polymers in Sensor Applications,
Progress in Polymer Science,
29(7): 699-766 (2004).
[2] Arnold M.A., Meyerhoff M.E.,
Recent Advances in the Development and Analytical Applications of Biosensing Probes,
Critical Reviews in Analytical Chemistry,
20(3):149-196 (1988).
[3] Wilson J.S., "
Sensor Technology Handbook", Elsevier; (2004).
[4] Newman J.D., Setford S.J.,
Enzymatic Biosensors,
Mol Biotechnol.,
32(3): 249-268 (2006).
[5] Bohunicky B., Mousa S.A.,
Biosensors: the New Wave in Cancer Diagnosis,
Nanotechnology, Science and Applications,
4(1): 1-10 (2011).
[6] Liu Y., Matharu Z., Howland M.C., Revzin A., Simonian A.L.,
Affinity and Enzyme-Based Biosensors: Recent Advances and Emerging Applications in Cell Analysis and Point-of-Care Testing,
Analytical and Bioanalytical Chemistry,
404(4): 1181-196 (2012).
[7] Hasanzadeh M., Shadjou N., Eskandani M., de la Guardia M.,
Mesoporous Silica-Based Materials for Use in Electrochemical Enzyme Nanobiosensors,
TrAC Trends in Analytical Chemistry,
40: 106-118 (2012).
[8] Morrison D.W., Dokmeci M.R., Demirci U., Khademhosseini A., "
Clinical Applications of Micro-and Nanoscale Biosensors", John Wiley & Sons, Inc.: Hoboken, NJ, USA; (2007).
[9] Vo-Dinh T., Cullum B.,
Biosensors and Biochips: Advances in Biological and Medical Diagnostics,
Fresenius' Journal of Analytical Chemistry,
366(6-7): 540-551 (2000).
[10] Hasanzadeh M., Shadjou N.,
Electrochemical Nanobiosensing in Whole Blood: Recent Advances,
TrAC Trends in Analytical Chemistry,
80:167-176 (2016).
[12] Monošík R., Streďanský M., Šturdík E.,
Biosensors-Classification, Characterization and New Trends, A
cta Chimica Slovaca,
5(1): 109-120 (2012).
[16] Bohunicky B., Mousa S.A.,
Biosensors: the New Wave in Cancer Diagnosis,
Nanotechnology,
Science and Applications,
4: 1-9 (2011).
[17] Soldatkin O., Peshkova V., Dzyadevych S., Soldatkin A., Jaffrezic-Renault N., El'skaya A.,
Novel Sucrose Three-Enzyme Conductometric Biosensor,
Materials Science and Engineering: C.,
28(5): 959-964 (2008).
[21] Justino C.I., Freitas A.C., Pereira R., Duarte A.C., Santos T.A.R.,
Recent Developments in Recognition Elements for Chemical Sensors and Biosensors,
TrAC Trends in Analytical Chemistry,
68: 2-17 (2015).
[23] Gray C.J., Weissenborn M.J., Eyers C.E., Flitsch S.L.,
Enzymatic Reactions on Immobilised Substrates,
Chemical Society Reviews,
42(15): 6378-6405 (2013).
[25] Mohamad N.R., Marzuki N.H.C., Buang N.A., Huyop F., Wahab R.A.,
An Overview of Technologies for Immobilization of Enzymes and Surface Analysis Techniques for Immobilized Enzymes,
Biotechnology & Biotechnological Equipment,
29(2): 205-220 (2015).
[26] Tischer W., Wedekind F.,
Immobilized Enzymes: Methods and Applications,
Biocatalysis-from Discovery to Application,
18: 95-126 (1999).
[27] Norouzian D.,
Enzyme Immobilization: the State of Art in Biotechnology,
Iranian Journal of Biotechnology,
1(4):197-206 (2003).
[29] Buchholz K., Klein J.,
[1] Characterization of Immobilized Biocatalysts,
Methods in Enzymology,
135: 3-30 (1987).
[31] Foresti M., Ferreira M.,
Chitosan-Immobilized Lipases for the Catalysis of Fatty Acid Esterifications,
Enzyme and Microbial Technology,
40(4):769-777 (2007).
[32] Balcão V.M., Paiva A.L., Malcata F.X.,
Bioreactors with Immobilized Lipases: State of the Art,
Enzyme and Microbial Technology,
18(6): 392-416 (1996).
[33] De Lathouder K., van Benthem D., Wallin S., Mateo C., Lafuente R.F., Guisan J.,
Polyethyleneimine (PEI) Functionalized Ceramic Monoliths as Enzyme Carriers: Preparation and Performance,
Journal of Molecular Catalysis B: Enzymatic,
50(1): 20-27 (2008).
[34] Spahn C., Minteer S.D.,
Enzyme Immobilization in Biotechnology,
Recent Patents on Engineering, 2(3):195-200 (2008).
[36] Cao L., van Langen L., Sheldon R.A.,
Immobilised Enzymes: Carrier-Bound or Carrier-Free? Current opinion in Biotechnology,
14(4):387-394 (2003).
[37] Ittrat P., Chacho T., Pholprayoon J., Suttiwarayanon N., Charoenpanich J.,
Application of Agriculture Waste as a Support for Lipase Immobilization,
Biocatalysis and Agricultural Biotechnology,
3(3): 77-82 (2014).
[38] Wu C., Zhou G., Jiang X., Ma J., Zhang H., Song H.,
Active Biocatalysts Based on Candida Rugosa lipase Immobilized in Vesicular Silica,
Process Biochemistry,
47(6): 953-959 (2012).
[39] Kim J., Grate J.W., Wang P.,
Nanostructures for Enzyme Stabilization,
Chemical Engineering Science,
61(3):1017-1026 (2006).
[42] Datta S., Christena L.R., Rajaram Y.R.S.,
Enzyme Immobilization: an Overview on Techniques and Support Materials,
3 Biotech.,
3(1): 1-9 (2013).
[43] Gorecka E., Jastrzębska M.,
Immobilization Techniques and Biopolymer Carriers,
Biotechnology and Food Science,
75(1): 65-86 (2011).
[44] Lee C.-H., Lin T.-S., Mou C.-Y.,
Mesoporous Materials for Encapsulating Enzymes,
Nano Today.,
4(2): 165-179 (2009).
[47] Han Y.D., Jang Y.H., Yoon H.C.,
Cascadic Multienzyme Reaction-Based Electrochemical Biosensors,
Biosensors Based on Aptamers and Enzymes: Springer,
8: 221-251 (2013).
[48] Sassolas A., Blum L.J., Leca-Bouvier B.D.,
Immobilization Strategies to Develop Enzymatic Biosensors,
Biotechnology Advances,
30(3):489-511 (2012).
[49] Jesionowski T., Zdarta J., Krajewska B.,
Enzyme Immobilization by Adsorption: A Review,
Adsorption,
20(5-6): 801-821 (2014).
[52] Aehle W.. "
Enzymes in Industry: Production and Applications", John Wiley & Sons, Inc., (2007).
[54] Won K., Kim S., Kim K.-J., Park H.W., Moon S.-J.,
Optimization of Lipase Entrapment in Ca-Alginate Gel Beads,
Process Biochemistry, 40(6): 2149-2154 (2005).
[55] Shen Q., Yang R., Hua X., Ye F., Zhang W., Zhao W.,
Gelatin-Templated Biomimetic Calcification for β-Galactosidase Immobilization,
Process Biochemistry,
46(8):1565-1571 (2011).
[57] López A., Lázaro N., Marqués A.M.,
The Interphase Technique: A Simple Method of Cell Immobilization in Gel-Beads,
J. Microbiol Methods.,
30(3): 231-4 (1997).
[61] Honda T., Miyazaki M., Nakamura H., Maeda H.,
Immobilization of Enzymes on a Microchannel Surface Through Cross-Linking Polymerization,
Chemical Communications,
40: 5062-5064 (2005).
[62] Hanefeld U., Gardossi L., Magner E.,
Understanding Enzyme Immobilisation,
Chemical Society Reviews.,
38(2):453-468 (2009).
[68] Park J.-M., Kim M., Park H.-S., Jang A., Min J., Kim Y.-H.,
Immobilization of Lysozyme-CLEA onto Electrospun Chitosan Nanofiber for Effective Antibacterial Applications,
International journal of Biological Macromolecules,
54: 37-43 (2013).
[69] Berezhetskyy A., Sosovska O., Durrieu C., Chovelon J.-M., Dzyadevych S., Tran-Minh C.,
Alkaline Phosphatase Conductometric Biosensor for Heavy-Metal Ions Determination,
Irbm., 29(2):136-40 (2008).
[70] Zhang Z., Xia S., Leonard D., Jaffrezic-Renault N., Zhang J., Bessueille F.,
A Novel Nitrite Biosensor Based on Conductometric Electrode Modified with Cytochrome c Nitrite Reductase Composite Membrane,
Biosensors and Bioelectronics,
24(6):1574-9 (2009).
[73] Luo X., Morrin A., Killard A.J., Smyth M.R.,
Application of Nanoparticles in Electrochemical Sensors and Biosensors,
Electroanalysis,
18(4): 319-326 (2006).
[74] Ansari S.A., Husain Q.,
Potential Applications of Enzymes Immobilized on/in Nano Materials: A Review,
Biotechnology Advances,
30(3):512-523 (2012).
[75] Kerman K., Saito M., Tamiya E., Yamamura S., Takamura Y.,
Nanomaterial-Based Electrochemical Biosensors for Medical Applications,
TrAC Trends in Analytical Chemistry,
27(7): 585-592 (2008).
[76] Cipolatti E.P., Silva M.J.A., Klein M., Feddern V., Feltes M.M.C., Oliveira J.V., et al.
Current Status and Trends in Enzymatic Nanoimmobilization, J
ournal of Molecular Catalysis B: Enzymatic, 99:56-67 (2014).
[77] Novoselov K.S., Fal V., Colombo L., Gellert P., Schwab M., Kim K.,
A Roadmap for Graphene,
Nature,
490(7419):192-200 (2012).
[78] Novoselov K.S., Geim A.K., Morozov S.V., Jiang D., Zhang Y., Dubonos S.V., et al.
Electric Field Effect in Atomically Thin Carbon Films, Science,
306(5696):666-9 (2004).
[79] Kuila T., Bose S., Khanra P., Mishra A.K., Kim N.H., Lee J.H.,
Recent Advances in Graphene-Based Bosensors,
Biosensors and Bioelectronics,
26(12):4637-4648 (2011).
[80] Pumera M.,
Graphene in Biosensing,
MaterialsToday, 14(7): 308-315 (2011).
[81] Shao Y., Wang J., Wu H., Liu J., Aksay I.A., Lin Y.,
Graphene Based Electrochemical Sensors and Biosensors: A Review,
Electroanalysis,
22(10):1027-1036 (2010).
[82] Su C.-Y., Lu A.-Y., Xu Y., Chen F.-R., Khlobystov A.N., Li .L-J.,
High-Quality Thin Graphene Films from Fast Electrochemical Exfoliation, ACS Nano,
5(3):2332-9 (2011).
[83] Reina A., Jia X., Ho J., Nezich D., Son H., Bulovic V., et al.
Large Area, Few-Layer Graphene Films on Arbitrary Substrates by Chemical Vapor Deposition,
Nano Letters, 9(1):30-55
(2008).
[84] Marcano D.C., Kosynkin D.V., Berlin J.M., Sinitskii A., Sun Z., Slesarev A., "
Improved Synthesis of Graphene Oxide", Wiely (2010) pp. 125-129.
[85] Hummers Jr W.S., Offeman R.E.,
Preparation of Graphitic Oxide, J
ournal of the American Chemical Society, 80(6):1339- 44 (1958).
[86] Barberis A., Spissu Y., Fadda A., Azara E., Bazzu G., Marceddu S.,
Simultaneous Amperometric Detection of Ascorbic Acid and Antioxidant Capacity in Orange, Blueberry and Kiwi Juice, by a Telemetric System Coupled with a Fullerene-or Nanotubes-Modified Ascorbate Subtractive Biosensor,
Biosensors and Bioelectronics,
67: 214-23 (2015).
[89] Liu Y., Yu D., Zeng C., Miao Z., Dai L.,
Biocompatible Graphene Oxide-Based Glucose Biosensors,
Langmuir,
26(9):61 , 58-60 (2010)
[90] Shan C., Yang H., Song J., Han D., Ivaska A., Niu L.,
Direct Electrochemistry of Glucose Oxidase and Biosensing for Glucose Based on Graphene,
Analytical Chemistry,
81(6): 2378-82 (2009).
[92] Iijima S.,
Carbon Nanotubes: Past, Present, and Future,
Physica B: Condensed Matter., 323(1):1-5 (2002).
[93] Feng W., Ji P.,
Enzymes Immobilized on Carbon Nanotubes,
Biotechnology Advances,
29(6): 889-95 (2011).
[94] Wang S., Zhang Q., Wang R., Yoon S., Ahn J., Yang D.,
Multi-Walled Carbon Nanotubes for the Immobilization of Enzyme in Glucose Biosensors,
Electrochemistry Communications,
5(9):800-3 (2003).
[95] Lee G.-J., Choi S.K., Choi S., Park J.H., Park H.-K.,
Enzyme-Immobilized CNT Network Probe for in Vivo Neurotransmitter Detection, N
anoscale Biocatalysis: Methods and Protocols,
33 (4) :65-75 (2011).
[96] Zhang F.-F., Wang X.-L., Li C.-X., Li X.-H., Wan Q., Xian Y.-Z., et al.
Assay for Uric Acid Level in Rat Striatum by a Reagentless Biosensor Based on Functionalized Multi-Wall Carbon Nanotubes with Tin Oxide,
Analytical and Bioanalytical Chemistry,
382(6):1368-73 (2005).
[98] Rawal R., Chawla S., Chauhan N., Dahiya T., Pundir C.,
Construction of Amperometric Uric Acid Biosensor Based on Uricase Immobilized on PBNPs/cMWCNT/PANI/Au Composite,
International Journal of Biological Macromolecules,
50(1):112-8 (2012).
[99] Jain K.,
Current Status of Molecular Biosensors,
Medical Device Technology,
14(4):10-5 (2003).
[100] Tiwari P., Bawage S., Singh S., Hamblin M., Avci P.,
Gold Nanoparticles and Their Applications in Photomedicine, Diagnosis and Therapy,
Applications of Nanoscience in Photomedicine: Woodhead Publishing Cambridge, : 249-66 (2015).
[101] Li Y., Schluesener H.J., Xu S.,
Gold Nanoparticle-Based Biosensors,
Gold Bulletin.,
43(1): 29-41 (2010).
[102] Xu J., Zeng F., Wu S., Liu X., Hou C., Tong Z.,
Gold Nanoparticles Bound on Microgel Particles and Their Application as an Enzyme Support,
Nanotechnology,
18(26): 265704 (2007).
[105] Phadtare S., Vinod V., Mukhopadhyay K., Kumar A., Rao M., Chaudhari R.V.,
Immobilization and Biocatalytic Activity of Fungal Protease on Gold Nanoparticle‐Loaded Zeolite Microspheres,
Biotechnology and Bioengineering,
85(6):629-37 (2004).
[106] Vicentini F.C., Garcia L.L., Figueiredo-Filho L.C., Janegitz B.C., Fatibello-Filho O.,
A Biosensor Based on Gold Nanoparticles, Dihexadecylphosphate, and Tyrosinase for the Determination of Catechol in Natural Water,
Enzyme and Microbial Technology,
84:17-23 (2016).
[109] Chen S., Yuan R., Chai Y., Hu F.,
Electrochemical Sensing of Hydrogen Peroxide Using Metal Nanoparticles: A Review,
Microchimica Acta.,
180(1-2):15-32 (2013).
[110] Crespilho F.N., Iost R.M., Travain S.A., Oliveira O.N., Zucolotto V.,
Enzyme Immobilization on Ag Nanoparticles/Polyaniline Nanocomposites,
Biosensors and Bioelectronics,
24(10):3073-7 (2009).
[111] Zhang F., Wang X., Ai S., Sun Z., Wan Q., Zhu Z., et al.
Immobilization of Uricase on ZnO Nanorods for a Reagentless Uric Acid Biosensor,
Analytica Chimica Acta.,519(2):155-60 (2004).
[112] Kochana J., Wapiennik K., Kozak J., Knihnicki P., Pollap A., Woźniakiewicz M.,
Tyrosinase-Based Biosensor for Determination of Bisphenol A in a Flow-batch System,
Talanta,
144:163-70 (2015).
[114] Jaganathan H., Godin B.,
Biocompatibility Assessment of Si-Based Nano-and Micro-Particles,
Advanced Drug Delivery Reviews,
64(15):1800-19 (2012).
[115] de Souza K.C., Mohallem N.D.S., de Souza E.,
Nanocompósitos Magnéticos: Potencialidades de Aplicações em Biomedicina,
Quim Nova., 34(10): 1692-703 (2011).
[116] Magner E.,
Immobilisation of Enzymes on Mesoporous Silicate Materials,
Chemical Society Reviews,
42(15):6213-22 (2013).
[117] Hasanzadeh M., Shadjou N., de la Guardia M., Eskandani M., Sheikhzadeh P.,
Mesoporous Silica-Based Materials for use in Biosensors,
TrAC Trends in Analytical Chemistry,
33:117-29 (2012).
[118] Reis P., Witula T., Holmberg K.,
Mesoporous Materials as Host for an Entrapped Enzyme,
Microporous and Mesoporous Materials,
110(2):355-62 (2008).
[122] Dhawan G., Sumana G., Malhotra B.,
Recent Developments in Urea Biosensors,
Biochemical Engineering Journal,
44(1):42-52 (2009).
[123] Bosio V.E., Islan G.A., Martínez Y.N., Durán N., Castro G.R.,
Nanodevices for the Immobilization of Therapeutic Enzymes,
Critical Reviews in Biotechnology, 36(3):447-464 (2016).
[124] Kan J., Pan X., Chen C.,
Polyaniline–Uricase Biosensor Prepared with Template Process,
Biosensors and Bioelectronics,
19(12):1635-40 (2004).
[125] Arora K., Sumana G., Saxena V., Gupta R.K., Gupta S., Yakhmi J., et al.
Improved Performance of Polyaniline-Uricase Biosensor,
Analytica Chimica Acta,
594(1):17-23 (2007).
[127] Naghib S.M., Rabiee M., Omidinia E., Khoshkenara P., Zeini D.,
Biofunctionalization of Dextran-Based Polymeric Film Surface Through Enzyme Immobilization for Phenylalanine Determination,
International Journal of Electrochemical Science,
7: 120-35 (2012).
[128] Turan J., Kesik M., Soylemez S., Goker S., Coskun S., Unalan H.E., et al.
An Effective Surface Design Based on a Conjugated Polymer and Silver Nanowires for the Detection of Paraoxon in Tap Water and Milk, S
ensors and Actuators B: Chemical,
228:278-86 (2016).
[130] Soldatkin O.O., Stepurska K., Arkhypova V., Soldatkin A., El’Skaya A., Lagarde F.,
Conductometric Enzyme Biosensor for Patulin Determination,
Sensors and Actuators B: Chemical,
239:1010-5 (2017).
[132] Ghourchian H., Moulaie Rad A., Elyasvandi H.,
A Conductometric Urea Biosensor by Direct Immobilization of Urease on Pt Electrode,
Iranian Journal of Chemistry and Chemical Engineering (IJCCE),
23(2):55-63 (2004).
[133] Kanyong P., Hughes G., Pemberton R.M., Jackson S.K., Hart J.P.,
Amperometric Screen-Printed Galactose Biosensor for Cell Toxicity Applications,
Analytical Letters.,
49(2): 236-244 (2016).
[135] Fang Y., Bullock H., Lee S.A., Sekar N., Eiteman M.A., Whitman W.B., et al.
Detection of Methyl Salicylate Using bi-Enzyme Electrochemical Sensor Consisting Salicylate Hydroxylase and Tyrosinase,
Biosensors and Bioelectronics,
85:603-10 (2016).
[137] Wang Z., Luo X., Wan Q., Wu K., Yang N.,
Versatile Matrix for Constructing Enzyme-Based Biosensors,
ACS Applied Materials & Interfaces,
6(19):17296-305 (2014).
[140] Hasanzadeh M., Hassanpour S., Nahr A.S., Shadjou N., Mokhtarzadeh A., Mohammadi J.,
Proline Dehydrogenase-Entrapped Mesoporous Magnetic Silica Nanomaterial for Electrochemical Biosensing of L-Proline in Bological Fluids,
Enzyme and Microbial Technology,
105: 64-76 (2017).
[141] Li Y., Zhang Y., Han G., Xiao Y., Li M., Zhou W.,
An Acetylcholinesterase Biosensor Based on Graphene/Polyaniline Composite Film for Detection of Pesticides,
Chinese Journal of Chemistry, 34(1):82-88 (2016).
[142] Mross S., Pierrat S., Zimmermann T., Kraft M.,
Microfluidic Enzymatic Biosensing Systems: A Review,
Biosens Bioelectron,
70: 376-391 (2015).
[144] Fornera S., Kuhn P., Lombardi D., Schlüter A.D., Dittrich P.S., Walde P.,
Sequential Immobilization of Enzymes in Microfluidic Channels for Cascade Reactions,
Chem.Plus.Chem., 77(2):98-101 (2012).
[146] Dolmacı N., Çete S., Arslan F., Yaşar A.,
An Amperometric Biosensor for Fish Freshness Detection from Xanthine Oxidase Immobilized in Polypyrrole-Polyvinylsulphonate Film,
Artificial Cells, Blood Substitutes, and Biotechnology,
40(4): 275-279 (2012).
[147] Lawal A., Adeloju S.,
Polypyrrole-Based Potentiometric Phosphate Biosensor,
Journal of Molecular Catalysis B: Enzymatic,
63(1): 45-49 (2010).
[149] Rodrigues N.P., Sakai Y., Fujii T.,
Cell-Based Microfluidic Biochip for the Electrochemical Real-Time Monitoring of Glucose and Oxygen,
Sensors and Actuators B: Chemical,
132(2): 608-613 (2008).
[150] Cheng W., Klauke N., Sedgwick H., Smith G.L., Cooper J.M.,
Metabolic Monitoring of
the Electrically Stimulated Single Heart Cell within a Microfluidic Platform,
Lab on a Chip., 6(11): 1424-1431 (2006).
[151] Bäcker M., Rakowski D., Poghossian A., Biselli M., Wagner P., Schöning M.J.,
Chip-Based mperometric Enzyme Sensor System for Monitoring of Bioprocesses by Flow-Injection Analysis,
Journal of Biotechnology,
163(4): 371-376 (2013).
[152] Mishra R.K., Dominguez R.B., Bhand S., Muñoz R., Marty J-L.,
A Novel Automated Flow-Based Biosensor for the Determination of Organophosphate Pesticides in Milk,
Biosensors and Bioelectronics,
32(1):56-61 (2012).