[1] Research and Markets (2023). Biosensors Market Size, Share & Trends Analysis Report By Technology (Thermal, Optical), By Application (Medical, Food Toxicity), By End-user (Home Healthcare Diagnostics, POC Testing), And Segment Forecasts, 2023 – 2030, Grand View Research, Research Markets,
2023, 1-110, ID: 4538811. [
Publisher]
[2] A. Mohammadinejad, R.K. Oskuee, R. Eivazzadeh-Keihan, M. Rezayi, B. Baradaran, A. Maleki, M. Hashemzaei, A. Mokhtarzadeh, M. de la Guardia, Development of biosensors for detection of alpha-fetoprotein: As a major biomarker for hepatocellular carcinoma,
TrAC Trends Analyt. Chem.,
2020,
130, 115961. [
crossref], [
Google Scholar], [
Publisher]
[3] S. Chen, Y. Zhu, J. Han, T. Zhang, R. Chou, A. Liu, S. Liu, Y. Yang, K. Hu, L. Zou, Construction of a molecularly imprinted sensor modified with tea branch biochar and its rapid detection of norfloxacin residues in animal-derived foods,
Foods,
2023,
12, 544. [
crossref], [
Google Scholar], [
Publisher]
[4] A. Barhoum, S. Hamimed, H. Slimi, A. Othmani, F.M. Abdel-Haleem, M. Bechelany, Modern designs of electrochemical sensor platforms for environmental analyses: Principles, nanofabrication opportunities, and challenges,
Trends Environ. Anal. Chem.,
2023, 38, e00199. [
crossref], [
Google Scholar], [
Publisher]
[5] R.L. Petersen, Strategies using bio-layer interferometry biosensor technology for vaccine research and development,
Biosensors,
2017,
7, 49. [
crossref], [
Google Scholar], [
Publisher]
[6] S.K. Lee, B. Yim, J. Park, N.G. Kim, B.S. Kim, Y. Park, Y.K. Yoon, J. Kim, Method for the rapid detection of SARS-CoV-2-neutralizing antibodies using a nanogel-based surface plasmon resonance biosensor,
ACS Appl. Polym. Mater.,
2023,
5, 2195-2202. [
crossref], [
Google Scholar], [
Publisher]
[7] G. Li, X. Zhang, F. Zheng, J. Liu, D. Wu, Emerging nanosensing technologies for the detection of β-agonists,
Food Chem.,
2020, 332, 127431. [
crossref], [
Google Scholar], [
Publisher]
[8] B. Berg, B. Cortazar, D. Tseng, H. Ozkan, S. Feng, Q. Wei, R.Y.L. Chan, J. Burbano, Q. Farooqui, M. Lewinski, D. Di Carlo, Cellphone-based hand-held microplate reader for point-of-care testing of enzyme-linked immunosorbent assays,
ACS nano,
2015,
9, 7857–7866. [
crossref], [
Google Scholar], [
Publisher]
[9] A.P. Demchenko, Introduction to fluorescence sensing. Springer Science & Business Media,
2008. [
Google Scholar], [
Publisher]
[10] B.K. Walther, Y. Lu, J. Zhou, T. Chouhan, H. Wang, P. Golani, M. Xu, Q. Xu, C. Guan, Z. Liu, Machine learning-guided synthesis of advanced inorganic materials,
Mater. Today,
2020,
41, 72-80, [
crossref], [
Google Scholar], [
Publisher]
[11] L. Mehrannia, B. Khalilzadeh, R. Rahbarghazi, M. Milani, Saydan G. Kanberoglu, H. Yousefi, N. Erk, Electrochemical Biosensors as a Novel Platform in the Identification of Listeriosis Infection,
Biosensors,
2023, 13, 216. [
crossref], [
Google Scholar], [
Publisher]
[12] J. R. Crowther. "The ELISA guidebook." In Series Springer Protocols. Methods in Molecular Biology, New Jersey: Humana Press,
2009,
516. [
Publisher]
[13] J. Gibbs, M. Vessels, M. Rothenberg, Selecting the detection system –
colorimetric, fluorescent, luminescent
methods for ELISA assays
[14] Z. Li, Y. Liu, X. Chen, Y. Wang, H. Niu, F. Li, H. Gao, H. Yu, Y. Yuan, Y. Yin, D. Li, Affinity-based analysis methods for the detection of aminoglycoside antibiotic residues in animal-derived foods: A review,
Foods,
2023,
12, 1587. [
crossref], [
Google Scholar], [
Publisher]
[15] T. Lakshmipriya, S.C.B. Gopinath, U. Hashim, T.H. Tang, Signal enhancement in ELISA: Biotin-streptavidin technology against gold nanoparticles,
J. Taibah Univ. Medical Sci.,
2016,
11, 432–438. [
crossref], [
Google Scholar], [
Publisher]
[16] A. Zhdanov, J. Keefe, L. Franco-Waite, K. R. Konnaiyan, A. Pyayt, Mobile phone based ELISA (MELISA),
Biosens. Bioelectron.,
2018,
103, 138–142. [
crossref], [
Google Scholar], [
Publisher]
[17] D. Bueno, R. Muñoz, J.L. Marty, Fluorescence analyzer based on smartphone camera and wireless for detection of Ochratoxin A,
Sens. Actuators B Chem.,
2016,
232, 462–468. [
crossref], [
Google Scholar], [
Publisher]
[18] L. Meng, A.P.F. Turner, W.C. Mak, Soft and flexible material-based affinity sensors,
Biotechnol. Adv.,
2020,
39, 107398. [
crossref], [
Google Scholar], [
Publisher]
[19] C. Moina, G. Ybarra. "Fundamentals and applications of immunosensors." Advances in immunoassay technology,
2012, 66. [
Google Scholar], [
Publisher]
[20] J. Wu, Z. Fu, F. Yan, H. Ju, Biomedical and clinical applications of immunoassays and immunosensors for tumor markers,
TrAC, Trends Anal. Chem.,
2007,
26, 679–688. [
crossref], [
Google Scholar], [
Publisher]
[21] A.T. Kal-Koshvandi, Recent advances in optical biosensors for the detection of cancer biomarker α-fetoprotein (AFP),
TrAC, Trends Anal. Chem.,
2020,
128, 115920. [
crossref], [
Google Scholar], [
Publisher]
[22] M. Freitas, M.M.P.S. Neves, H.P.A. Nouws, C. Delerue-Matos, Quantum dots as nanolabels for breast cancer biomarker HER2-ECD analysis in human serum,
Talanta,
2020,
208, 120430. [
crossref], [
Google Scholar], [
Publisher]
[23] M. Larguinho, P.V. Baptista, Gold and silver nanoparticles for clinical diagnostics—from genomics to proteomics,
J. proteomics,
2012,
75, 2811–2823. [
crossref], [
Google Scholar], [
Publisher]
[24] H. Li, D. Xu, Silver nanoparticles as labels for applications in bioassays,
TrAC, Trends Anal. Chem.,
2014,
61, 67–73. [
crossref], [
Google Scholar], [
Publisher]
[25] J. Li, J.J. Zhu, K. Xu, Fluorescent metal nanoclusters: from synthesis to applications,
TrAC, Trends Anal. Chem.,
2014,
58, 9098. [
crossref], [
Google Scholar], [
Publisher]
[26] J. Tellechea-Luzardo, H. Martín Lázaro, R. Moreno López, P. Carbonell, Sensbio: an online server for biosensor design,
BMC bioinform.,
2023,
24, 1–15. [
crossref], [
Google Scholar], [
Publisher]
[27] C.G. Siontorou, K.N. Georgopoulos, M.M.E. Nalantzi, Designing biosensor networks for the environmental risk assessment of aquatic systems,
Crit. Rev. Environ. Sci. Technol.,
2017,
47, 40–63. [
crossref], [
Google Scholar], [
Publisher]
[28] X. Jin, C. Liu, T. Xu, L. Su, X. Zhang, Artificial intelligence biosensors: Challenges and prospects,
Biosens. Bioelectron.,
2020,
165, 112412. [
crossref], [
Google Scholar], [
Publisher]
[29] X. Jin, A. Cai, T. Xu, X. Zhang, Artificial intelligence biosensors for continuous glucose monitoring,
Interdiscip. Mater.,
2022, 2, 290–307. [
crossref], [
Google Scholar], [
Publisher]
[30] R. Du, M. Guo, X. He, K. Huang, Y. Luo, Feedback regulation mode of gene circuits directly affects the detection range and sensitivity of lead and mercury microbial biosensors,
Analytica Chimica Acta,
2019, 1084, 85–92. [
crossref], [
Google Scholar], [
Publisher]
[31] S. Hu, G. Zhang, X. Jia, Improvement of a highly sensitive and specific whole-cell biosensor by adding a positive feedback amplifier,
Synth. Syst. Biotechnol.,
2023,
8, 292–299. [
crossref], [
Google Scholar], [
Publisher]
[32] C.I.L. Justino, T.A. Rocha-santos, A.C. Duarte, Review of analytical figures of merit of sensors and biosensors in clinical applications,
TrAC, Trends Anal. Chem.,
2010, 29, 1172–1183. [
crossref], [
Google Scholar], [
Publisher]
[33] F.A. Batzias, C.G. Siontorou, Creating a specific domain ontology for supporting R&D in the science-based sector–The case of biosensors,
Expert Syst. Appl.,
2012,
39, 9994-10015. [
crossref], [
Google Scholar], [
Publisher]
[35] T.J. Free, R.W. Tucker, K.M. Simonson, S.A. Smith, C.M. Lindgren, W.G. Pitt, B.C. Bundy, Engineering at-home dilution and filtration methods to enable paper-based colorimetric biosensing in human blood with cell-free protein synthesis,
Biosensors,
2023, 13, 104. [
crossref], [
Google Scholar], [
Publisher]
[36] L. Farzin, M. Shamsipur, L. Samandari, S. Sadjadi, S. Sheibani, Biosensing strategies based on organic-scaffolded metal nanoclusters for ultrasensitive detection of tumor markers,
Talanta,
2020,
214, 120886. [
crossref], [
Google Scholar], [
Publisher]
[37] R. Zanella, Metodologías para la síntesis de nanopartículas: controlando forma y tamaño,
Mundo nano. Revista interdisciplinaria en nanociencias y nanotecnología,
2012,
5, 69-81. [
Google Scholar], [
Publisher]
[38] Y. Wang, X.P. Yan, Fabrication of vascular endothelial growth factor antibody bioconjugated ultrasmall near-infrared fluorescent Ag 2 S quantum dots for targeted cancer imaging in vivo,
ChemComm,
2013,
49, 3324–3326. [
crossref], [
Google Scholar], [
Publisher]
[39] H. Kim, W. Seong, E. Rha, H. Lee, S.K. Kim, K.K. Kwon, K.H. Park, D.H. Lee, S.G. Lee, Machine learning linked evolutionary biosensor array for highly sensitive and specific molecular identification,
Biosens. Bioelectron.,
2020,
170, 112670. [
crossref], [
Google Scholar], [
Publisher]
[40] D. Bizzotto, I.J. Burgess, T. Doneux, T. Sagara, H.Z. Yu, Beyond simple cartoons: challenges in characterizing electrochemical biosensor interfaces,
ACS sensors,
2018,
3, 5–12. [
crossref], [
Google Scholar], [
Publisher]
[41] N. Olson, J. Bae, Biosensors—publication trends and knowledge domain visualization,
Sensors,
2019,
19, 2615. [
crossref], [
Google Scholar], [
Publisher]
[42] M.R. Bindhu, M. Umadevi Spectrochim, Silver and gold nanoparticles for sensor and antibacterial applications,
Spectrochim. Acta A Mol. Biomol. Spectrosc.,
2014,
128, 3745. [
crossref], [
Google Scholar], [
Publisher]
[43] D. Zhao, Z. Wu, J.Yu, H. Wang, Y. Li, Y. Duan, Highly sensitive microfluidic detection of carcinoembryonic antigen via a synergetic fluorescence enhancement strategy based on the micro/nanostructure optimization of ZnO nanorod arrays and in situ ZIF-8 coating,
Chem. Eng. J.,
2020, 383, 123230. [
crossref], [
Google Scholar], [
Publisher]
[44] Y. Liu, P. Dong, Q. Jiang, F. Wang, D.W. Pang, X. Liu, Assembly-enhanced fluorescence from metal nanoclusters and quantum dots for highly sensitive biosensing,
Sens. Actuators B Chem.,
2019,
279, 334–341. [
crossref], [
Google Scholar], [
Publisher]
[45] Y. Liu, J. Wang, X. Song, K. Xu, H. Chen, C. Zhao, J. Li, Colorimetric immunoassay for Listeria monocytogenes by using core gold nanoparticles, silver nanoclusters as oxidase mimetics, and aptamer-conjugated magnetic nanoparticles,
Microchimica Acta,
2018,
185, 360. [
crossref], [
Google Scholar], [
Publisher]
[46] I.M. Khan, S. Zhao, S. Niazi, A. Mohsin, M. Shoaib, N. Duan, S. Wu, Z. Wang, Silver nanoclusters based FRET aptasensor for sensitive and selective fluorescent detection of T-2 toxin,
Sens. Actuators B Chem.,
2018,
277, 328-335. [
crossref], [
Google Scholar], [
Publisher]
[47] F.M. Moghadam, M. Rahaie, A signal-on nanobiosensor for VEGF165 detection based on supraparticle copper nanoclusters formed on bivalent aptamer,
Biosens. Bioelectron.,
2019,
132,186-195. [
crossref], [
Google Scholar], [
Publisher]
[48] Q. Guo, X. Li, C. Shen, S. Zhang, H. Qi, T. Li, M. Yang, Electrochemical immunoassay for the protein biomarker mucin 1 and for MCF-7 cancer cells based on signal enhancement by silver nanoclusters,
Microchimica Acta,
2015, 182, 1483–1489. [
crossref], [
Google Scholar], [
Publisher]
[49] A.A. Sadeghan, H. Soltaninejad, S. Hosseinkhani, M. Hosseini, M.R. Ganjali, M.A. Asadollahi, Fluorescence enhancement of silver nanocluster at intrastrand of a 12C-loop in presence of methylated region of sept 9 promoter,
Analytica chimica acta,
2018,
1038, 157-165. [
crossref], [
Google Scholar], [
Publisher]
[50] T. Laksanasopin, T.W. Guo, S. Nayak, A.A. Sridhara, S. Xie, O.O. Olowookere, P. Cadinu, F. Meng, N.H. Chee, J. Kim, C.D. Chin, A smartphone dongle for diagnosis of infectious diseases at the point of care,
Sci. Transl. Med.,
2015,
7, 273re1-273re1. [
crossref], [
Google Scholar], [
Publisher]
[51] C. Wang, K. Xing, G. Zhang, M. Yuan, S. Xu, D. Liu, W. Chen, J. Peng, S. Hu, W.H. Lai, 2019. Novel ELISA based on fluorescent quenching of DNA-stabilized silver nanoclusters for detecting E. coli O157: H7,
Food Chem.,
2019,
281, 91-96. [
crossref], [
Google Scholar], [
Publisher]
[52] R. Li, Q. Liu, Y. Jin, B. Li, Fluorescent enzyme-linked immunoassay strategy based on enzyme-triggered in-situ synthesis of fluorescent copper nanoclusters,
Sens. Actuators B Chem.,
2019,
281, 28–33. [
crossref], [
Google Scholar], [
Publisher]
[53] W.C. Mak, V. Beni, A.P.F. Turner, Lateral-flow technology: From visual to instrumental,
TrAC, Trends Anal. Chem.,
2016,
79, 297–305. [
crossref], [
Google Scholar], [
Publisher]
[54] A. Sena-Torralba, R. Álvarez-Diduk, C. Parolo, A. Piper, A. Merkoçi, Toward next generation lateral flow assays: Integration of nanomaterials,
Chem. Rev.,
2022, 122, 14881–14910. [
crossref], [
Google Scholar], [
Publisher]
[55] A. Moyano, E. Serrano-Pertierra, M. Salvador, J.C. Martínez-García, M. Rivas, M.C. Blanco-López, Magnetic lateral flow immunoassays,
Diagnostics,
2020,
10, 228. [
crossref], [
Google Scholar], [
Publisher]
[56] Q. Ye, S. Ren, H. Huang, G. Duan, K. Liu, J.B. Liu, Fluorescent and colorimetric sensors based on the oxidation of o-phenylenediamine,
ACS omega, 2020,
5, 20698–20706. [
crossref], [
Google Scholar], [
Publisher]
[57] Z. Lin, S. Lv, K. Zhang, D. Tang, Optical transformation of a CdTe quantum dot-based paper sensor for a visual fluorescence immunoassay induced by dissolved silver ions,
J. Mater. Chem. B,
2017,
5, 826–833. [
crossref], [
Google Scholar], [
Publisher]
[58] J. Wang, X. Wang, S. Wu, J. Song, Y. Zhao, Y. Ge, C. Meng, Fabrication of highly catalytic silver nanoclusters/graphene oxide nanocomposite as nanotag for sensitive electrochemical immunoassay,
Analytica Chimica Acta,
2016,
906, 80–88. [
crossref], [
Google Scholar], [
Publisher]
[59] A.M. CG, A. Varghese, Recent advances in nanomaterials based molecularly imprinted electrochemical sensors,
Crit. Rev. Anal. Chem.,
2023, 53, 88–97. [
crossref], [
Google Scholar], [
Publisher]
[60] D.M. Rissin, C.W. Kan, T.G. Campbell, S.C. Howes, D.R. Fournier, L. Song, T. Piech, P.P. Patel, L. Chang, A.J. Rivnak, E.P. Ferrell, Single-molecule enzyme-linked immunosorbent assay detects serum proteins at subfemtomolar concentrations,
Nat. Biotechnol.,
2010,
28, 595–599. [
crossref], [
Google Scholar], [
Publisher].
[61] L. Tarassishin, The evolution of the enzyme immunoassay/enzyme-linked immunosorbent assay,
Journal of Proteomics and Genomics Research,
2021,
2, 13-17. [
crossref], [
Google Scholar], [
Publisher]
[62] J. Park, M. Park, J. Kim, Y. Heo, B.H. Han, N. Choi, C. Park, R. Lee, D.G. Lee, S.J.Y. Chung, Kang, Beads-and oil-free single molecule assay with immuno-rolling circle amplification for detection of SARS-CoV-2 from saliva,
Biosens. Bioelectron.,
2023,
232, 115316. [
crossref], [
Google Scholar], [
Publisher]
[63] M. Pohanka, Overview of piezoelectric biosensors, immunosensors and DNA sensors and their applications,
Materials,
2018,
11, 448. [
crossref], [
Google Scholar], [
Publisher]
[64] A.K. Singh, M. Singh, QCM sensing of melphalan via electropolymerized molecularly imprinted polythiophene films,
Biosens. Bioelectron.,
2015,
74, 711–717. [
crossref], [
Google Scholar], [
Publisher]
[65] P. Singh, SPR biosensors: historical perspectives and current challenges,
Sens. Actuators B Chem.,
2016,
229, 110–130. [
crossref], [
Google Scholar], [
Publisher]
[66] J. Li, J. Macdonald, Multiplexed lateral flow biosensors: Technological advances for radically improving point-of-care diagnoses,
Biosens. Bioelectron.,
2016,
85, 998–999. [
crossref], [
Google Scholar], [
Publisher]
[68] L. Beaudet, R. Rodriguez-Suarez, M.H. Venne, M. Caron, J. Bédard, V. Brechler, S. Parent, M. Bielefeld-Sévigny, AlphaLISA immunoassays: the no-wash alternative to ELISAs for research and drug discovery,
Nat. Methods,
2008,
5, an8–an9. [
crossref], [
Google Scholar], [
Publisher]
[69] S.D. Staerz, E.M. Lisabeth, E. Njomen, T.S. Dexheimer, R.R. Neubig, J.J. Tepe, Development of a cell-based alphaLISA assay for high-throughput screening for small molecule proteasome modulators,
ACS omega,
2023,
8, 15650-15659. [
crossref], [
Google Scholar], [
Publisher]
[70] H. Wang, L.O. Jones, T. Zhao, I. Hwang, V.M. Lynch, N.M. Khashab, G.C. Schatz, Z.A. Page, J.L. Sessler, Fluorescent copolymer aggregate sensor for lithium chloride,
Chem. Sci.,
2023,
14, 4120–4125. [
crossref], [
Google Scholar], [
Publisher]
[71] A. Futane, V. Narayanamurthy, P. Jadhav, A. Srinivasan, Aptamer-based rapid diagnosis for point-of-care application,
Microfluid. Nanofluidics,
2023,
27, 15, [
crossref], [
Google Scholar], [
Publisher]
[72] J. Chen, Z. Fang, J. Liu, L. Zeng, A simple and rapid biosensor for ochratoxin A based on a structure-switching signaling aptamer,
Food Control,
2012,
25, 555–560. [
crossref], [
Google Scholar], [
Publisher]
[74] E. Greenwald, J. Zhang, FBDB - Fluorescent Biosensor Database, University of California San Diego. https://biosensordb.ucsd.edu/about.php (accessed Apr. 29, 2021).
[75] H.S. Mondal, K.A. Ahmed, N. Birbilis, M.Z. Hossain, Machine learning for detecting DNA attachment on SPR biosensor.
Scientific Reports,
2023,
13, 1–10. [
crossref], [
Google Scholar], [
Publisher]