Challenge of biosensors in Mycobacterium Tuberculosis

  • Sargol Mazraedoost Shiraz University of medical science
  • Reza Masoumzade Department of Medical, Shiraz University of Medical Sciences, Shiraz, Iran.
  • Zahra Javidi Biotechnology Research Center, Shiraz University of Medical Sciences, Shiraz, Iran.
Keywords: Tuberculosis Diagnosis, Mycobacterium Tuberculosis, Detection, Biosensors

Abstract

 Tuberculosis (TB) is a bacterial illness caused by Mycobacterium tuberculosis (MTB), and it is a long-term public health risk due to several biological and societal factors. Tuberculosis (TB) is a bacterial infection that most commonly affected the lungs and can damage the kidneys, brain, and spine. Tuberculosis (TB) is a fatal human illness that has been prevalent for a long time. It is also known as "consumption" or "phthisis."M. tuberculosis is thought to have killed more people than any other bacterial infection. As a result, early detection of this bacterial infection is critical for patients to get prompt and suitable therapy. In underdeveloped countries, more than 98% of tuberculosis cases are recorded. Effective diagnosis approaches based on biosensors are required for these bacteria due to a shortage of well-equipped and specialized diagnostic facilities.

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References
1. Wirth, T. and F. Hildebrand, lix-Beguec C, Wolbeling F, Kubica T, Kremer K, et al. Origin, spread and demography of the Mycobacterium tuberculosis complex. PLoS Pathog, 2008. 4: p. e1000160.
2. Hashemi, S.A., et al., Integrated polyaniline with graphene oxide-iron tungsten nitride nanoflakes as ultrasensitive electrochemical sensor for precise detection of 4-nitrophenol within aquatic media. Journal of Electroanalytical Chemistry, 2020. 873: p. 114406.
3. Mousavi, S.M., et al., Green synthesis of supermagnetic Fe3O4–MgO nanoparticles via Nutmeg essential oil toward superior anti-bacterial and anti-fungal performance. Journal of Drug Delivery Science and Technology, 2019. 54: p. 101352.
4. Gholami, A., et al., 3D nanostructures for tissue engineering, cancer therapy, and gene delivery. Journal of Nanomaterials, 2020. 2020.
5. Bloom, B.R. and P.E. Fine, The BCG experience: implications for future vaccines against tuberculosis. Tuberculosis: pathogenesis, protection, and control, 1994: p. 531-557.
6. Friedman, L.N., Tuberculosis: current concepts and treatment. 2000.
7. Grange, J., Mycobacteria and human disease 2nd ed. Arnold ISBN 0, 1996. 340(64563): p. 6.
8. Funnye, A.S., K. Ganesan, and T.T. Yoshikawa, Tuberculosis in African Americans: clinical characteristics and outcome. Journal of the National Medical Association, 1998. 90(2): p. 73.
9. Mousavi, S.M., et al., Recent Advancements in Polythiophene-Based Materials and their Biomedical, Geno Sensor and DNA Detection. International Journal of Molecular Sciences, 2021. 22(13): p. 6850.
10.Mousavi, S.M., et al., Recent Progress in Electrochemical Detection of Human Papillomavirus (HPV) via Graphene-Based Nanosensors. Journal of Sensors, 2021. 2021.
11. Hashemi, S.A., et al., Picomolar-level detection of mercury within non-biological/biological aqueous media using ultra-sensitive polyaniline-Fe 3 O 4-silver diethyldithiocarbamate nanostructure. Analytical and Bioanalytical Chemistry, 2020. 412: p. 5353-5365.
12. Smith, I., Mycobacterium tuberculosis pathogenesis and molecular determinants of virulence. Clinical microbiology reviews, 2003. 16(3): p. 463-496.
13. Mousavi, S.M., et al., Data on cytotoxic and antibacterial activity of synthesized Fe3O4 nanoparticles using Malva sylvestris. Data in brief, 2020. 28: p. 104929.
14. Mousavi, S.M., et al., Development of hydrophobic reduced graphene oxide as a new efficient approach for photochemotherapy. RSC Advances, 2020. 10(22): p. 12851-12863.
15. Palomino, J., Nonconventional and new methods in the diagnosis of tuberculosis: feasibility and applicability in the field. European Respiratory Journal, 2005. 26(2): p. 339-350.
16. Mousavi, S.M., et al., Gold nanostars-diagnosis, bioimaging and biomedical applications. Drug metabolism reviews, 2020. 52(2): p. 299-318.
17. Mazraedoost, S. and N. Banaei, Biochemical composition properties of Kombucha SCOBY: Mini Reviews. Advances in Applied NanoBio-Technologies, 2020. 1(4): p. 99-104.
18. Organization, W.H. and S.T. Initiative, Treatment of tuberculosis: guidelines. 2010: World Health Organization.
19. Frieden, T., Directly observed treatment, short-course (DOTS): ensuring cure of tuberculosis. Indian journal of pediatrics, 2000. 67(2 Suppl): p. S21-7.
20. Salimiyan Rizi, K., et al., The overview and perspectives of biosensors and Mycobacterium tuberculosis: A systematic review. Journal of Cellular Physiology, 2021. 236(3): p. 1730-1750.
21. Hashemi, S.A., et al., Polythiophene silver bromide nanostructure as ultra-sensitive non-enzymatic electrochemical glucose biosensor. European Polymer Journal, 2020. 138: p. 109959.
22. Mousavi, S.M., et al., Recent biotechnological approaches for treatment of novel COVID-19: from bench to clinical trial. Drug Metabolism Reviews, 2021. 53(1): p. 141-170.
23. Mousavi, S.M., et al., Development of clay nanoparticles toward bio and medical applications. 2018: IntechOpen.
24. Hashemi, S.A., et al., Coupled graphene oxide with hybrid metallic nanoparticles as potential electrochemical biosensors for precise detection of ascorbic acid within blood. Analytica chimica acta, 2020. 1107: p. 183-192.
25. Bahrani, S., et al., Zinc-based metal–organic frameworks as nontoxic and biodegradable platforms for biomedical applications: review study. Drug metabolism reviews, 2019. 51(3): p. 356-377.
26. Tech, J.E.T., Investigating the Activity of Antioxidants Activities Content in Apiaceae and to Study Antimicrobial and Insecticidal Activity of Antioxidant by using SPME Fiber Assembly Carboxen/Polydimethylsiloxane (CAR/PDMS). Journal of Environmental Treatment Techniques, 2020. 8(1): p. 214-24.
27. Mazraedoost, S. and G. Behbudi, Nano materials-based devices by photodynamic therapy for treating cancer applications. Advances in Applied NanoBio-Technologies, 2021. 2(3): p. 9-21.
28. Goudarzian, N., et al., Enhancing the Physical, Mechanical, Oxygen Permeability and Photodegradation Properties of Styrene-acrylonitrile (SAN), Butadiene Rubber (BR) Composite by Silica Nanoparticles. Journal of Environmental Treatment Techniques, 2020. 8(2): p. 718-726.
29. Mazraedoost, S. and G. Behbudi, Basic Nano Magnetic Particles and Essential Oils: Biological Applications. Journal of Environmental Treatment Techniques, 2021. 9(3): p. 609-620.
30. Goudarzian, N., et al., Evalouation of Styrene Acrylo Nitrile (SAN), Butadiene Rubber (BR), Nano-silica (Nano SiO2) Blend and Nanocomposite in the Presence of Oxoperoxidant Study. Journal of Environmental Treatment Techniques, 2020. 9(1): p. 24-32.
31. Mousavi, S.M., et al., Development of graphene based nanocomposites towards medical and biological applications. Artificial cells, nanomedicine, and biotechnology, 2020. 48(1): p. 1189-1205.
32. Mousavi, S.M., et al., Nanosensors for chemical and biological and medical applications. Med Chem (Los Angeles), 2018. 8(8): p. 2161-0444.1000515.
33. Mousavi, S., M. Zarei, and S. Hashemi, Polydopamine for biomedical application and drug delivery system. Med Chem (Los Angeles), 2018. 8: p. 218-29.
34. Hashemi, S.A., et al., Ultra-sensitive viral glycoprotein detection NanoSystem toward accurate tracing SARS-CoV-2 in biological/non-biological media. Biosensors and Bioelectronics, 2021. 171: p. 112731.
35. Mousavi, M., et al., Erythrosine adsorption from aqueous solution via decorated graphene oxide with magnetic iron oxide nano particles: kinetic and equilibrium studies. Acta Chimica Slovenica, 2018. 65(4): p. 882-894.
36. Avval, Z.M., et al., Introduction of magnetic and supermagnetic nanoparticles in new approach of targeting drug delivery and cancer therapy application. Drug metabolism reviews, 2020. 52(1): p. 157-184.
37. Takmil, F., et al., Nano-magnetically modified activated carbon prepared by oak shell for treatment of wastewater containing fluoride ion. Advanced Powder Technology, 2020. 31(8): p. 3236-3245.
38. Azhdari, R., et al., Decorated graphene with aluminum fumarate metal organic framework as a superior non-toxic agent for efficient removal of Congo Red dye from wastewater. Journal of Environmental Chemical Engineering, 2019. 7(6): p. 103437.
39. Hashemi, S.A., et al., Superior X-ray radiation shielding effectiveness of biocompatible polyaniline reinforced with hybrid graphene oxide-iron tungsten nitride flakes. Polymers, 2020. 12(6): p. 1407.
40. Ahmadi, S., et al., Anti-bacterial/fungal and anti-cancer performance of green synthesized Ag nanoparticles using summer savory extract. Journal of Experimental Nanoscience, 2020. 15(1): p. 363-380.
41. Mousavi, S.M., et al., Asymmetric membranes: a potential scaffold for wound healing applications. Symmetry, 2020. 12(7): p. 1100.
42. Gholami, A., et al., Current trends in chemical modifications of magnetic nanoparticles for targeted drug delivery in cancer chemotherapy. Drug metabolism reviews, 2020. 52(1): p. 205-224.
43. Bajar, B.T., et al., A guide to fluorescent protein FRET pairs. Sensors, 2016. 16(9): p. 1488.
44. Rodríguez-Lázaro, D., et al., Real-time PCR-based methods for detection of Mycobacterium avium subsp. paratuberculosis in water and milk. International journal of food microbiology, 2005. 101(1): p. 93-104.
45. Thomson, L.M., et al., An extremely rapid and simple DNA-release method for detection of M. tuberculosis from clinical specimens. Journal of microbiological methods, 2005. 63(1): p. 95-98.
46. Choi, Y.J., Y. Hu, and A. Mahmood, Clinical significance of a polymerase chain reaction assay for the detection of Mycobacterium tuberculosis. American journal of clinical pathology, 1996. 105(2): p. 200-204.
47. Durmaz, R., et al., Sensitivity of two-stage PCR amplification for detection of Mycobacterium tuberculosis in paraffin-embedded tissues. Journal of microbiological methods, 1997. 29(2): p. 69-75.
48. Krambovitis, E., et al., Rapid diagnosis of tuberculous meningitis by latex particle agglutination. The Lancet, 1984. 324(8414): p. 1229-1231.
49. Tamminen, M., et al., Screening of lactic acid bacteria from fermented vegetables by carbohydrate profiling and PCR–ELISA. Letters in Applied Microbiology, 2004. 39(5): p. 439-444.
50. Nassau, E., E. Parsons, and G. Johnson, The detection of antibodies to Mycobacterium tuberculosis by microplate enzyme-linked immunosorbent assay (ELISA). Tubercle, 1976. 57(1): p. 67-70.
51. Delacourt, C., et al., Value of ELISA using antigen 60 for the diagnosis of tuberculosis in children. Chest, 1993. 104(2): p. 393-398.
52. Middlebrook, G., Z. Reggiardo, and W.D. Tigertt, Automatable radiometric detection of growth of Mycobacterium tuberculosis in selective media. American Review of Respiratory Disease, 1977. 115(6): p. 1066-1069.
53. Gamboa, F., et al., Detection and identification of mycobacteria by amplification of RNA and DNA in pretreated blood and bone marrow aspirates by a simple lysis method. Journal of clinical microbiology, 1997. 35(8): p. 2124-2128.
54. Liu, Z., X. Shi, and X. Wu, The method of Mycobacterium tuberculosis rapid cultivation fluorescence detection. Chinese Journal of Clinical Laboratory Science, 2001. 19: p. 347.
55. Cambau, E., et al., Evaluation of the new MB Redox system for detection of growth of mycobacteria. Journal of clinical microbiology, 1999. 37(6): p. 2013-2015.
56. Qin, D., et al., Using fluorescent nanoparticles and SYBR Green I based two-color flow cytometry to determine Mycobacterium tuberculosis avoiding false positives. Biosensors and Bioelectronics, 2008. 24(4): p. 626-631.
57. Zhou, L., et al., Biosensing technologies for Mycobacterium tuberculosis detection: status and new developments. Clinical and developmental immunology, 2011. 2011.
58. Griffiths, D. and G. Hall, Biosensors—what real progress is being made? Trends in Biotechnology, 1993. 11(4): p. 122-130.
59. Owen, V.M., Market requirements for advanced biosensors in healthcare. Biosensors & bioelectronics, 1994. 9(6): p. xxix-xxxv.
60. Gholoobi, A., et al., Comparison of culture and PCR methods for diagnosis of Mycobacterium tuberculosis in different clinical specimens. Jundishapur journal of microbiology, 2014. 7(2).
61. Swai, H.F., F.M. Mugusi, and J.K. Mbwambo, Sputum smear negative pulmonary tuberculosis: sensitivity and specificity of diagnostic algorithm. BMC research notes, 2011. 4(1): p. 1-6.
62. Desikan, P., Sputum smear microscopy in tuberculosis: is it still relevant? The Indian journal of medical research, 2013. 137(3): p. 442.
63. Srivastava, S.K., C.J. Van Rijn, and M.A. Jongsma, Biosensor-based detection of tuberculosis. RSC advances, 2016. 6(22): p. 17759-17771.
64. Asmar, S. and M. Drancourt, Rapid culture-based diagnosis of pulmonary tuberculosis in developed and developing countries. Frontiers in microbiology, 2015. 6: p. 1184.
65. Muddaiah, R.K., P.M. James, and R.K. Lingegowda, Comparative study of Smear Microscopy, Rapid Slide Culture, and Lowenstein-Jensen culture in cases of pulmonary tuberculosis in a tertiary care hospital. Journal of research in medical sciences: the official journal of Isfahan University of Medical Sciences, 2013. 18(9): p. 767.
66. Steingart, K.R., et al., Serological tests for the diagnosis of active tuberculosis: relevance for India. The Indian journal of medical research, 2012. 135(5): p. 695.
67. Imaz, M.S., et al., Serodiagnosis of tuberculosis: specific detection of free and complex-dissociated antibodies anti-mycobacterium tuberculosis recombinant antigens. Brazilian Journal of Infectious Diseases, 2008. 12(3): p. 234-244.
68. Foulds, J. and R. O'brien, New tools for the diagnosis of tuberculosis: the perspective of developing countries. The International Journal of Tuberculosis and Lung Disease, 1998. 2(10): p. 778-783.
69. de Luna, F.F.-A., et al., Evaluation of the GenoType Mycobacteria Direct assay for detection of Mycobacterium tuberculosis complex and four atypical mycobacterial species in clinical samples. Journal of clinical microbiology, 2006. 44(8): p. 3025-3027.
70. Neonakis, I.K., et al., Evaluation of GenoType mycobacteria direct assay in comparison with Gen-Probe Mycobacterium tuberculosis amplified direct test and GenoType MTBDRplus for direct detection of Mycobacterium tuberculosis complex in clinical samples. Journal of clinical microbiology, 2009. 47(8): p. 2601-2603.
71. Lv, Z., et al., Utility of real-time quantitative polymerase chain reaction in detecting Mycobacterium tuberculosis. BioMed research international, 2017. 2017.
72. Detjen, A.K., et al., Xpert MTB/RIF assay for the diagnosis of pulmonary tuberculosis in children: a systematic review and meta-analysis. The lancet respiratory medicine, 2015. 3(6): p. 451-461.
73. Chawla, K., et al., Role of PCR in the diagnosis of pulmonary and extra-pulmonary tuberculosis. National Journal of Laboratory Medicine, 2015. 4(4): p. 64-67.
74. Sarmiento, O.L., et al., Assessment by meta-analysis of PCR for diagnosis of smear-negative pulmonary tuberculosis. Journal of Clinical Microbiology, 2003. 41(7): p. 3233-3240.
75. Farooqi, J., et al., Utility of Line Probe Assay for diagnosis of extrapulmonary tuberculosis. International Journal of Mycobacteriology, 2015. 4: p. 110.
76. Luetkemeyer, A.F., et al., Evaluation of two line probe assays for rapid detection of Mycobacterium tuberculosis, tuberculosis (TB) drug resistance, and non-TB Mycobacteria in HIV-infected individuals with suspected TB. Journal of clinical microbiology, 2014. 52(4): p. 1052-1059.
77. Singh, B.K., et al., Diagnostic utility of a line probe assay for multidrug resistant-TB in smear-negative pulmonary tuberculosis. PLoS One, 2017. 12(8): p. e0182988.
78. Sharma, G., et al., A loop‐mediated isothermal amplification assay for the diagnosis of pulmonary tuberculosis. Letters in applied microbiology, 2019. 68(3): p. 219-225.
79. Srivastava, S.K., Biosensor based detection of tuberculosis biomarkers. 2014: Wageningen University.
80. Fani, M., et al., Correlation of human papillomavirus 16 and 18 with cervical cancer and their diagnosis methods in Iranian women: A systematic review and meta-analysis. Current problems in cancer, 2020. 44(1): p. 100493.
81. Fani, M., et al., Current approaches for detection of human T‐lymphotropic virus Type 1: A systematic review. Journal of cellular physiology, 2019. 234(8): p. 12433-12441.
82. Khorasani, M.Y., et al., The role of curcumin and its derivatives in sensory applications. Materials Science and Engineering: C, 2019. 103: p. 109792.
83. Rezayi, M., et al., A comparison of analytical methods for measuring concentrations of 25-hydroxy vitamin D in biological samples. Analytical Methods, 2018. 10(47): p. 5599-5612.
84. Rezayi, M., et al., Titanium (III) cation selective electrode based on synthesized tris (2pyridyl) methylamine ionophore and its application in water samples. Scientific reports, 2014. 4(1): p. 1-8.
85. Said, N.R., et al., A new N-heterocyclic Carbene Ionophore in plasticizer-free Polypyrrole membrane for determining Ag+ in tap water. Electrochimica Acta, 2016. 197: p. 10-22.
86. Said, N.R., et al., A novel potentiometric self-plasticizing polypyrrole sensor based on a bidentate bis-NHC ligand for determination of Hg (II) cation. RSC advances, 2015. 5(93): p. 76263-76274.
87. Sany, S.B.T., et al., An overview of detection techniques for monitoring dioxin-like compounds: latest technique trends and their applications. RSC advances, 2016. 6(60): p. 55415-55429.
88. Abraham, A.A., et al., A novel potentiometric sensor based on 1, 2-Bis (N’-benzoylthioureido) benzene and reduced graphene oxide for determination of lead (II) cation in raw milk. Electrochimica Acta, 2015. 165: p. 221-231.
89. Ahmadzadeh, S., et al., Highly selective detection of titanium (III) in industrial waste water samples using meso-octamethylcalix [4] pyrrole-doped PVC membrane ion-selective electrode. Electrochimica Acta, 2015. 178: p. 580-589.
90. Ahmadzadeh, S., et al., Cesium selective polymeric membrane sensor based on p-isopropylcalix [6] arene and its application in environmental samples. RSC Advances, 2015. 5(49): p. 39209-39217.
91. Rezayi, M., et al., Potentiometric chromate anion detection based on Co (SALEN) 2 ionophore in a PVC-membrane sensor. Journal of The Electrochemical Society, 2014. 161(6): p. B129.
92. Rezayi, M., et al., A novel polymeric membrane sensor for determining titanium (III) in real samples: Experimental, molecular and regression modeling. Sensors and Actuators B: Chemical, 2016. 224: p. 805-813.
93. Fani, M., et al., The role of microRNAs in the viral infections. Current pharmaceutical design, 2018. 24(39): p. 4659-4667.
94. Mahmoodi, P., et al., Early detection of cervical cancer based on high‐risk HPV DNA‐based genosensors: A systematic review. Biofactors, 2019. 45(2): p. 101-117.
95. Rasouli, E., et al., Advancements in electrochemical DNA sensor for detection of human papilloma virus-A review. Analytical biochemistry, 2018. 556: p. 136-144.
96. Huang, Y., et al., Disease-related detection with electrochemical biosensors: a review. Sensors, 2017. 17(10): p. 2375.
97. Ronkainen, N.J., H.B. Halsall, and W.R. Heineman, Electrochemical biosensors. Chemical Society Reviews, 2010. 39(5): p. 1747-1763.
98. Torres-Chavolla, E. and E.C. Alocilja, Nanoparticle based DNA biosensor for tuberculosis detection using thermophilic helicase-dependent isothermal amplification. Biosensors and Bioelectronics, 2011. 26(11): p. 4614-4618.
99. Zhang, P., et al. Electrochemical biosensor based on modified graphene oxide for tuberculosis diagnosis. in 2011 9th IEEE International Conference on ASIC. 2011. IEEE.
100. Mogha, N.K., et al., Reduced graphene oxide nanoribbon immobilized gold nanoparticle based electrochemical DNA biosensor for the detection of Mycobacterium tuberculosis. Journal of Materials Chemistry B, 2018. 6(31): p. 5181-5187.
101. Miodek, A., et al., E-DNA sensor of Mycobacterium tuberculosis based on electrochemical assembly of nanomaterials (MWCNTs/PPy/PAMAM). Analytical chemistry, 2015. 87(18): p. 9257-9264.
102. Zribi, B., et al., A microfluidic electrochemical biosensor based on multiwall carbon nanotube/ferrocene for genomic DNA detection of Mycobacterium tuberculosis in clinical isolates. Biomicrofluidics, 2016. 10(1): p. 014115.
103. Rueda, D., et al., A novel inexpensive electrochemical sensor for pyrazinoic acid as a potential tool for the identification of pyrazinamide-resistant Mycobacterium tuberculosis. International journal of mycobacteriology, 2018. 7(3): p. 275.
104. VanEngelenburg, S.B. and A.E. Palmer, Fluorescent biosensors of protein function. Current opinion in chemical biology, 2008. 12(1): p. 60-65.
105. Newman, R.H., M.D. Fosbrink, and J. Zhang, Genetically encodable fluorescent biosensors for tracking signaling dynamics in living cells. Chemical reviews, 2011. 111(5): p. 3614-3666.
106. Vacaru, A.M., et al., Generation of transgenic mouse fluorescent reporter lines for studying hematopoietic development, in Mouse genetics. 2014, Springer. p. 289-312.
107. Gaddam, R.R., R. Narayan, and K. Raju, Fluorescence spectroscopy of nanofillers and their polymer nanocomposites, in Spectroscopy of polymer nanocomposites. 2016, Elsevier. p. 158-180.
108. Stich, M.I., L.H. Fischer, and O.S. Wolfbeis, Multiple fluorescent chemical sensing and imaging. Chemical Society Reviews, 2010. 39(8): p. 3102-3114.
109. Lu, X., et al., A gold nanorods-based fluorescent biosensor for the detection of hepatitis B virus DNA based on fluorescence resonance energy transfer. Analyst, 2013. 138(2): p. 642-650.
110. Villalobos, P., et al., The application of polymerized lipid vesicles as colorimetric biosensors for real-time detection of pathogens in drinking water. Electronic Journal of Biotechnology, 2012. 15(1): p. 4-4.
111. Zadran, S., et al., Fluorescence resonance energy transfer (FRET)-based biosensors: visualizing cellular dynamics and bioenergetics. Applied microbiology and biotechnology, 2012. 96(4): p. 895-902.
112. Manasreh, M.O., Introduction to nanomaterials and devices. Vol. 1. 2012: Wiley Online Library.
113. Shojaei, T.R., et al., Development of sandwich-form biosensor to detect Mycobacterium tuberculosis complex in clinical sputum specimens. Brazilian Journal of Infectious Diseases, 2014. 18(6): p. 600-608.
114. Yang, F., G. Yen, and B.T. Cunningham, Voltage-tuned resonant reflectance optical filter for visible wavelengths fabricated by nanoreplica molding. Applied Physics Letters, 2007. 90(26): p. 261109.
115. Xiao, L., et al., Colorimetric biosensor for detection of cancer biomarker by au nanoparticle-decorated Bi2Se3 nanosheets. ACS applied materials & interfaces, 2017. 9(8): p. 6931-6940.
116. Ckumdee, J., et al., Development of Au-nanoprobes combined with loop-mediated isothermal amplification for detection of Isoniazid resistance in Mycobacterium tuberculosis. Journal of Chemistry, 2016. 2016.
117. Ckumdee, J., S. Santiwatanakul, and T. Kaewphinit. Development of a rapid and sensitive DNA turbidity biosensor test for diagnosis of katG gene in isoniazid resistant Mycobacterium tuberculosis. in 2017 IEEE SENSORS. 2017. IEEE.
118. Pohanka, M., Overview of piezoelectric biosensors, immunosensors and DNA sensors and their applications. Materials, 2018. 11(3): p. 448.
119. Williams, A.L. and W.J. Brown, Piezoelectric motor. 1948, Google Patents.
120. Kaewphinit, T., et al., Detection of non-amplified Mycobacterium tuberculosis genomic DNA using piezoelectric DNA-based biosensors. Sensors, 2010. 10(3): p. 1846-1858.
121. Mi, X., et al., Novel phage amplified multichannel series piezoelectric quartz crystal sensor for rapid and sensitive detection of Mycobacterium tuberculosis. Analytical chemistry, 2012. 84(2): p. 939-946.
122. Ren, J., et al., Simultaneous and early detection of Mycobacterium tuberculosis resistance to antituberculosis drugs using an indirect series piezoelectric system. Biosensors and Bioelectronics, 2013. 43: p. 115-119.
123. Yan, R., et al., Waveguide biosensor with integrated detector array for tuberculosis testing. Applied Physics Letters, 2011. 98(1): p. 013702.
124. Dey, D. and T. Goswami, Optical biosensors: a revolution towards quantum nanoscale electronics device fabrication. Journal of Biomedicine and Biotechnology, 2011. 2011.
125. Ligler, F.S. and C.R. Taitt, Optical biosensors: today and tomorrow. 2011: Elsevier.
126. Martins, T.D., et al., New insights on optical biosensors: techniques, construction and application. State of the art in biosensors—General aspects, 2013: p. 112-139.
127. Heydari, M., et al., Aptamers as potential recognition elements for detection of vitamins and minerals: A systematic and critical review. Critical reviews in clinical laboratory sciences, 2020. 57(2): p. 126-144.
128. Damborský, P., J. Švitel, and J. Katrlík, Optical biosensors. Essays in biochemistry, 2016. 60(1): p. 91-100.
129. Mukundan, H., et al., Rapid detection of Mycobacterium tuberculosis biomarkers in a sandwich immunoassay format using a waveguide-based optical biosensor. Tuberculosis, 2012. 92(5): p. 407-416.
130. Hong, S.C., et al., Ultrasensitive immunosensing of tuberculosis CFP-10 based on SPR spectroscopy. Sensors and Actuators B: Chemical, 2011. 156(1): p. 271-275.
131. Hong, S.C., et al., Clinical immunosensing of tuberculosis CFP-10 in patient urine by surface plasmon resonance spectroscopy. Sensors and Actuators B: Chemical, 2011. 160(1): p. 1434-1438.
132. Duman, M. and E. Piskin, Detection of Mycobacterium tuberculosis complex and Mycobacterium gordonae on the same portable surface plasmon resonance sensor. Biosensors and Bioelectronics, 2010. 26(2): p. 908-912.
133. Rachkov, A., et al., Discrimination of single base mismatched oligonucleotides related to the rpoB gene of Mycobacterium tuberculosis using a surface plasmon resonance biosensor. Biotechnology and applied biochemistry, 2013. 60(4): p. 453-458.
134. Rinaldi, F., et al., Epitope and affinity determination of recombinant Mycobacterium tuberculosis Ag85B antigen towards anti-Ag85 antibodies using proteolytic affinity-mass spectrometry and biosensor analysis. Analytical and bioanalytical chemistry, 2019. 411(2): p. 439-448.
135. Xiang, Y., et al., Real-time monitoring of mycobacterium genomic DNA with target-primed rolling circle amplification by a Au nanoparticle-embedded SPR biosensor. Biosensors and Bioelectronics, 2015. 66: p. 512-519.
136. Barroso, T.R., et al. Detecting antibody-labeled BCG MNPs using a magnetoresistive biosensor and magnetic labeling technique. in Journal of Nano Research. 2016. Trans Tech Publ.
137. Wang, Y., et al., Application of nanodiagnostics in point-of-care tests for infectious diseases. International journal of nanomedicine, 2017. 12: p. 4789.
138. Vargas, G., et al., Applications of magnetotactic bacteria, magnetosomes and magnetosome crystals in biotechnology and nanotechnology: mini-review. Molecules, 2018. 23(10): p. 2438.
139. Liong, M., et al., Magnetic barcode assay for genetic detection of pathogens. Nature communications, 2013. 4(1): p. 1-9.
140. Gonzalo-Asensio, J., et al., New insights into the transposition mechanisms of IS 6110 and its dynamic distribution between Mycobacterium tuberculosis Complex lineages. PLoS genetics, 2018. 14(4): p. e1007282.
141. Sankar, S., et al., Analysis of sequence diversity among IS6110 sequence of Mycobacterium tuberculosis: possible implications for PCR based detection. Bioinformation, 2011. 6(7): p. 283.
142. Liu, C., et al., An electrochemical DNA biosensor for the detection of Mycobacterium tuberculosis, based on signal amplification of graphene and a gold nanoparticle–polyaniline nanocomposite. Analyst, 2014. 139(21): p. 5460-5465.
143. Hsu, S.-H., et al., Mycobacterium tuberculosis DNA detection using surface plasmon resonance modulated by telecommunication wavelength. Sensors, 2014. 14(1): p. 458-467.
144. Issa, R., N. Hamdan, and M. Noh, Differential pulse voltammetric determination of DNA hybridization using methylene blue on screen printed carbon electrode for the detection of Mycobacterium tuberculosis. Biotechnology, 2010. 9(3): p. 304-311.
145. Kanayeva, D., I. Bekniyazov, and Z. Ashikbayeva, Detection of tuberculosis using biosensors: Recent progress and future trends. Sensors & Transducers, 2013. 149(2): p. 166.
146. Mohamad, F.S., et al., Synthesis and characterization of polyaniline/graphene composite nanofiber and its application as an electrochemical DNA biosensor for the detection of Mycobacterium tuberculosis. Sensors, 2017. 17(12): p. 2789.
147. Nguyen, L., Antibiotic resistance mechanisms in M. tuberculosis: an update. Archives of toxicology, 2016. 90(7): p. 1585-1604.
148. Nurmalasari, R., S. Gaffar, and Y.W. Hartati, Label-free electrochemical DNA biosensor for the detection of Mycobacterium tuberculosis using gold electrode modified by self-assembled monolayer of thiol. Procedia Chemistry, 2015. 17: p. 111-117.
149. Prabhakar, N., et al., Peptide nucleic acid immobilized biocompatible silane nanocomposite platform for Mycobacterium tuberculosis detection. Electroanalysis, 2010. 22(22): p. 2672-2682.
150. Thakur, H., et al., Electrochemical determination of M. tuberculosis antigen based on Poly (3, 4-ethylenedioxythiophene) and functionalized carbon nanotubes hybrid platform. Talanta, 2017. 171: p. 115-123.
151. Thakur, H., et al., Aptamer based voltammetric biosensor for the detection of Mycobacterium tuberculosis antigen MPT64. Microchimica Acta, 2017. 184(7): p. 1915-1922.
152. Torati, S.R., et al., Electrochemical biosensor for Mycobacterium tuberculosis DNA detection based on gold nanotubes array electrode platform. Biosensors and Bioelectronics, 2016. 78: p. 483-488.
153. Liu, Y., et al., Aptamer-based electrochemical biosensor for interferon gamma detection. Analytical chemistry, 2010. 82(19): p. 8131-8136.
154. Yesil, M., S. Donmez, and F. Arslan, Development of an electrochemical DNA biosensor for detection of specific Mycobacterium tuberculosis sequence based on poly (L-glutamic acid) modified electrode. Journal of Chemical Sciences, 2016. 128(11): p. 1823-1829.
155. Miotto, P., et al., A standardised method for interpreting the association between mutations and phenotypic drug resistance in Mycobacterium tuberculosis. European Respiratory Journal, 2017. 50(6).
156. Morency-Potvin, P., D.N. Schwartz, and R.A. Weinstein, Antimicrobial stewardship: how the microbiology laboratory can right the ship. Clinical microbiology reviews, 2017. 30(1): p. 381-407.
Published
2021-12-20
How to Cite
1.
Mazraedoost S, Masoumzade R, Javidi Z. Challenge of biosensors in Mycobacterium Tuberculosis. AANBT [Internet]. 20Dec.2021 [cited 18May2024];2(4):1-4. Available from: https://www.dormaj.org/index.php/AANBT/article/view/429