Research Article
BibTex RIS Cite
Year 2022, Volume: 5 Issue: 1, 13 - 21, 31.05.2022
https://doi.org/10.34088/kojose.887169

Abstract

References

  • [1] Mahugo Santana, C., Sosa Ferrera, Z., Esther Torres Padrón, M. and Juan Santana Rodríguez, J. 2009, Methodologies for the extraction of phenolic compounds from environmental samples: new approaches. Molecules, Molecular Diversity Preservation International. 14, pp. 298–320.
  • [2] Abad-García, B., Berrueta, L.A., Garmón-Lobato, S., Gallo, B. and Vicente, F. 2009, A general analytical strategy for the characterization of phenolic compounds in fruit juices by high-performance liquid chromatography with diode array detection coupled to electrospray ionization and triple quadrupole mass spectrometry. Journal of Chromatography A, Elsevier. 1216, pp. 5398–415.
  • [3] Herchi, W., Arráez-Román, D., Trabelsi, H., Bouali, I., Boukhchina, S., Kallel, H. et al. 2014, Phenolic compounds in flaxseed: a review of their properties and analytical methods. An overview of the last decade. Journal of Oleo Science, Japan Oil Chemists’ Society. 63, pp. 7–14.
  • [4] Escarpa, A., Morales, M.D. and González, M.C. 2002, Analytical performance of commercially available and unavailable phenolic compounds using real samples by high-performance liquid chromatography–diode-array detection. Analytica Chimica Acta, Elsevier. 460, pp. 61–72.
  • [5] Sandeep, S., Santhosh, A.S., Swamy, N.K., Suresh, G.S. and Melo, J.S. 2019, Detection of Catechol using a Biosensor Based on Biosynthesized Silver nanoparticles and Polyphenol Oxidase Enzymes. Portugaliae Electrochimica Acta, Sociedade Portuguesa de Electroquímica. 37, pp. 257–70.
  • [6] Wang, G., He, X., Zhou, F., Li, Z., Fang, B., Zhang, X. et al. 2012, Application of gold nanoparticles/TiO2 modified electrode for the electrooxidative determination of catechol in tea samples. Food Chemistry, Elsevier. 135, pp. 446–51.
  • [7] Li, M., Ni, F., Wang, Y., Xu, S., Zhang, D., Chen, S. et al. 2009, Sensitive and facile determination of catechol and hydroquinone simultaneously under coexistence of resorcinol with a Zn/Al layered double hydroxide film modified glassy carbon electrode. Electroanalysis: An International Journal Devoted to Fundamental and Practical Aspects of Electroanalysis, Wiley Online Library. 21, pp. 1521–6.
  • [8] Ciulu, M., Spano, N., Pilo, M.I. and Sanna, G. 2016, Recent advances in the analysis of phenolic compounds in unifloral honeys. Molecules, Multidisciplinary Digital Publishing Institute. 21, pp. 451.
  • [9] Petrovic, M., Farré, M., De Alda, M.L., Perez, S., Postigo, C., Köck, M. et al. 2010, Recent trends in the liquid chromatography–mass spectrometry analysis of organic contaminants in environmental samples. Journal of Chromatography A, Elsevier. 1217, pp. 4004–17.
  • [10] Lee, V.B.C., Mohd-Naim, N.F., Tamiya, E. and Ahmed, M.U. 2018, Trends in paper-based electrochemical biosensors: from design to application. Analytical Sciences, The Japan Society for Analytical Chemistry. 34, pp. 7–18.
  • [11] Liu, B., Zhuang, J. and Wei, G. 2020, Recent advances in the design of colorimetric sensors for environmental monitoring. Environmental Science: Nano, Royal Society of Chemistry. 7, pp. 2195–213.
  • [12] Zhang, Y., Zhou, C., Nie, J., Le, S., Qin, Q., Liu, F. et al. 2014, Equipment-free quantitative measurement for microfluidic paper-based analytical devices fabricated using the principles of movable-type printing. Analytical Chemistry, ACS Publications. 86, pp. 5–12.
  • [13] Russell, S.M., Doménech-Sánchez, A. and de la Rica, R. 2017, Augmented reality for real-time detection and interpretation of colorimetric signals generated by paper-based biosensors. Acs Sensors, ACS Publications. 2, 8, pp. 48–53.
  • [14] Mahato, K., Srivastava, A. and Chandra, P. 2017, Paper based diagnostics for personalized health care: Emerging technologies and commercial aspects. Biosensors and Bioelectronics, Elsevier. 96, 2, pp. 46–59.
  • [15] Emerson, E. 1943, The condensation of aminoantipyrine. II. A new color test for phenolic compounds. The Journal of Organic Chemistry, ACS Publications. 8, 4, pp. 17–28.
  • [16] Varadaraju, C., Tamilselvan, G., Enoch, I. M. V. M., & Selvakumar, M. 2018, Phenol sensing studies by 4-aminoantipyrine method—a review. Org. and Med. Chem, 5(2), 1-7.
  • [17] Fiamegos, Y., Stalikas, C. and Pilidis, G. 2002, 4-Aminoantipyrine spectrophotometric method of phenol analysis: Study of the reaction products via liquid chromatography with diode-array and mass spectrometric detection. Analytica Chimica Acta, Elsevier. 467, 1, pp. 05–14.
  • [18] de Tarso Garcia, P., Cardoso, T. M. G., Garcia, C. D., Carrilho, E., & Coltro, W. K. T. 2014, A handheld stamping process to fabricate microfluidic paper-based analytical devices with chemically modified surface for clinical assays. Rsc Advances, 4, 71, pp. 37637-37644.
  • [19] Soni, A. and Jha, S.K. 2015, A paper strip based non-invasive glucose biosensor for salivary analysis. Biosensors and Bioelectronics, Elsevier. 67, 76, pp. 3–8.
  • [20] Christodouleas, D.C., Nemiroski, A., Kumar, A.A. and Whitesides, G.M. 2015, Broadly available imaging devices enable high-quality low-cost photometry. Analytical Chemistry, ACS Publications. 87, 917, pp. 0–8.
  • [21] Safarik, I., Baldikova, E., Prochazkova, J., & Pospiskova, K. 2019, Smartphone-based image analysis for evaluation of magnetic textile solid phase extraction of colored compounds. Heliyon, 5(12), e02995.
  • [22] Şengül, Ü. 2016, Comparing determination methods of detection and quantification limits for aflatoxin analysis in hazelnut. Journal of Food and Drug Analysis, Elsevier. 24, pp. 56–62.
  • [23] Desimoni, E. and Brunetti, B. 2015, About estimating the limit of detection by the signal to noise approach. OMICS Publishing group.
  • [24] Vial, J. and Jardy, A. 1999, Experimental comparison of the different approaches to estimate LOD and LOQ of an HPLC method. Analytical Chemistry, ACS Publications. 71, 267, pp. 2–7.
  • [25] Lavín, Á., Vicente, J. De, Holgado, M., Laguna, M.F., Casquel, R., Santamaría, B. et al. 2018, On the determination of uncertainty and limit of detection in label-free biosensors. Sensors, Multidisciplinary Digital Publishing Institute. 18, 2038.
  • [26] Hosu, O., Lettieri, M., Papara, N., Ravalli, A., Sandulescu, R., Cristea, C. et al. 2019, Colorimetric multienzymatic smart sensors for hydrogen peroxide, glucose and catechol screening analysis. Talanta, Elsevier. 204, 5, pp. 25–32.
  • [27] Keshvari, F. and Bahram, M. 2017, Selective, sensitive and reliable colorimetric sensor for catechol detection based on anti-aggregation of unmodified gold nanoparticles utilizing boronic acid–diol reaction: optimization by experimental design methodology. Journal of the Iranian Chemical Society, Springer. 14, 9, pp. 77–84.
  • [28] Chen, H., Li, S., Wang, S., Tan, Y. and Kan, J. 2013, A new catechol biosensor immobilized polyphenol oxidase by combining electropolymerization and cross-linking process. International Journal of Polymeric Materials and Polymeric Biomaterials, Taylor & Francis. 62, 62, pp. 0–6.
  • [29] Mu, S. 2006, Catechol sensor using poly (aniline-co-o-aminophenol) as an electron transfer mediator. Biosensors and Bioelectronics, Elsevier. 21, 12, pp. 37–43.
  • [30] Ameer, Q. and Adeloju, S.B. 2009, Development of a potentiometric catechol biosensor by entrapment of tyrosinase within polypyrrole film. Sensors and Actuators B: Chemical, Elsevier. 140, pp. 5–11.
  • [31] Li, D., Pang, Z., Chen, X., Luo, L., Cai, Y. and Wei, Q. 2014, A catechol biosensor based on electrospun carbon nanofibers. Beilstein Journal of Nanotechnology, Beilstein-Institut. 5, 3, pp. 46–54.
  • [32] Li, H., Kong, W., Liu, J., Liu, N., Huang, H., Liu, Y. et al. 2015, Fluorescent N-doped carbon dots for both cellular imaging and highly-sensitive catechol detection. Carbon, Elsevier. 91, pp. 66–75.
  • [33] Ma, Y., Chen, A.Y., Huang, Y.Y., He, X., Xie, X.F., He, B. et al. 2020, Off-on fluorescent switching of boron-doped carbon quantum dots for ultrasensitive sensing of catechol and glutathione. Carbon, Elsevier. 162, 2, pp. 34–44.

Paper-Based Biosensor System for Fast and Sensitive Phenolic Compounds Detection

Year 2022, Volume: 5 Issue: 1, 13 - 21, 31.05.2022
https://doi.org/10.34088/kojose.887169

Abstract

In this original paper, the development of a paper-based, sensitive, low-cost, quantitative and consistent biosensor system was demonstrated for the suitable “naked-eye” detection of phenolic compounds (specifical catechol). The Paper-based system depends on the enzymatic color-changing reaction that observed by using chromogenic agent of 4-AAP (4-aminoantipyrine) which has a specific color changing reaction in the presence of horseradish peroxidase (HRP) enzyme, phenol and H2O2. The visual result was associated with the catechol concentration by using image processing software to evaluate the quantitative detection. The developed biosensor system demonstrated a linear detection range from catechol between 2,5 µM to 100 µM with 2.6% to 9.3 % of sd results. The detection limit was also calculated as 2,25 µM. Specificity, selectivity, stability and direct real sample analysis demonstrated the potential applicability of the developed paper-based biosensor system for catechol detection in food samples with minimal investment and an easy-to-use method.

References

  • [1] Mahugo Santana, C., Sosa Ferrera, Z., Esther Torres Padrón, M. and Juan Santana Rodríguez, J. 2009, Methodologies for the extraction of phenolic compounds from environmental samples: new approaches. Molecules, Molecular Diversity Preservation International. 14, pp. 298–320.
  • [2] Abad-García, B., Berrueta, L.A., Garmón-Lobato, S., Gallo, B. and Vicente, F. 2009, A general analytical strategy for the characterization of phenolic compounds in fruit juices by high-performance liquid chromatography with diode array detection coupled to electrospray ionization and triple quadrupole mass spectrometry. Journal of Chromatography A, Elsevier. 1216, pp. 5398–415.
  • [3] Herchi, W., Arráez-Román, D., Trabelsi, H., Bouali, I., Boukhchina, S., Kallel, H. et al. 2014, Phenolic compounds in flaxseed: a review of their properties and analytical methods. An overview of the last decade. Journal of Oleo Science, Japan Oil Chemists’ Society. 63, pp. 7–14.
  • [4] Escarpa, A., Morales, M.D. and González, M.C. 2002, Analytical performance of commercially available and unavailable phenolic compounds using real samples by high-performance liquid chromatography–diode-array detection. Analytica Chimica Acta, Elsevier. 460, pp. 61–72.
  • [5] Sandeep, S., Santhosh, A.S., Swamy, N.K., Suresh, G.S. and Melo, J.S. 2019, Detection of Catechol using a Biosensor Based on Biosynthesized Silver nanoparticles and Polyphenol Oxidase Enzymes. Portugaliae Electrochimica Acta, Sociedade Portuguesa de Electroquímica. 37, pp. 257–70.
  • [6] Wang, G., He, X., Zhou, F., Li, Z., Fang, B., Zhang, X. et al. 2012, Application of gold nanoparticles/TiO2 modified electrode for the electrooxidative determination of catechol in tea samples. Food Chemistry, Elsevier. 135, pp. 446–51.
  • [7] Li, M., Ni, F., Wang, Y., Xu, S., Zhang, D., Chen, S. et al. 2009, Sensitive and facile determination of catechol and hydroquinone simultaneously under coexistence of resorcinol with a Zn/Al layered double hydroxide film modified glassy carbon electrode. Electroanalysis: An International Journal Devoted to Fundamental and Practical Aspects of Electroanalysis, Wiley Online Library. 21, pp. 1521–6.
  • [8] Ciulu, M., Spano, N., Pilo, M.I. and Sanna, G. 2016, Recent advances in the analysis of phenolic compounds in unifloral honeys. Molecules, Multidisciplinary Digital Publishing Institute. 21, pp. 451.
  • [9] Petrovic, M., Farré, M., De Alda, M.L., Perez, S., Postigo, C., Köck, M. et al. 2010, Recent trends in the liquid chromatography–mass spectrometry analysis of organic contaminants in environmental samples. Journal of Chromatography A, Elsevier. 1217, pp. 4004–17.
  • [10] Lee, V.B.C., Mohd-Naim, N.F., Tamiya, E. and Ahmed, M.U. 2018, Trends in paper-based electrochemical biosensors: from design to application. Analytical Sciences, The Japan Society for Analytical Chemistry. 34, pp. 7–18.
  • [11] Liu, B., Zhuang, J. and Wei, G. 2020, Recent advances in the design of colorimetric sensors for environmental monitoring. Environmental Science: Nano, Royal Society of Chemistry. 7, pp. 2195–213.
  • [12] Zhang, Y., Zhou, C., Nie, J., Le, S., Qin, Q., Liu, F. et al. 2014, Equipment-free quantitative measurement for microfluidic paper-based analytical devices fabricated using the principles of movable-type printing. Analytical Chemistry, ACS Publications. 86, pp. 5–12.
  • [13] Russell, S.M., Doménech-Sánchez, A. and de la Rica, R. 2017, Augmented reality for real-time detection and interpretation of colorimetric signals generated by paper-based biosensors. Acs Sensors, ACS Publications. 2, 8, pp. 48–53.
  • [14] Mahato, K., Srivastava, A. and Chandra, P. 2017, Paper based diagnostics for personalized health care: Emerging technologies and commercial aspects. Biosensors and Bioelectronics, Elsevier. 96, 2, pp. 46–59.
  • [15] Emerson, E. 1943, The condensation of aminoantipyrine. II. A new color test for phenolic compounds. The Journal of Organic Chemistry, ACS Publications. 8, 4, pp. 17–28.
  • [16] Varadaraju, C., Tamilselvan, G., Enoch, I. M. V. M., & Selvakumar, M. 2018, Phenol sensing studies by 4-aminoantipyrine method—a review. Org. and Med. Chem, 5(2), 1-7.
  • [17] Fiamegos, Y., Stalikas, C. and Pilidis, G. 2002, 4-Aminoantipyrine spectrophotometric method of phenol analysis: Study of the reaction products via liquid chromatography with diode-array and mass spectrometric detection. Analytica Chimica Acta, Elsevier. 467, 1, pp. 05–14.
  • [18] de Tarso Garcia, P., Cardoso, T. M. G., Garcia, C. D., Carrilho, E., & Coltro, W. K. T. 2014, A handheld stamping process to fabricate microfluidic paper-based analytical devices with chemically modified surface for clinical assays. Rsc Advances, 4, 71, pp. 37637-37644.
  • [19] Soni, A. and Jha, S.K. 2015, A paper strip based non-invasive glucose biosensor for salivary analysis. Biosensors and Bioelectronics, Elsevier. 67, 76, pp. 3–8.
  • [20] Christodouleas, D.C., Nemiroski, A., Kumar, A.A. and Whitesides, G.M. 2015, Broadly available imaging devices enable high-quality low-cost photometry. Analytical Chemistry, ACS Publications. 87, 917, pp. 0–8.
  • [21] Safarik, I., Baldikova, E., Prochazkova, J., & Pospiskova, K. 2019, Smartphone-based image analysis for evaluation of magnetic textile solid phase extraction of colored compounds. Heliyon, 5(12), e02995.
  • [22] Şengül, Ü. 2016, Comparing determination methods of detection and quantification limits for aflatoxin analysis in hazelnut. Journal of Food and Drug Analysis, Elsevier. 24, pp. 56–62.
  • [23] Desimoni, E. and Brunetti, B. 2015, About estimating the limit of detection by the signal to noise approach. OMICS Publishing group.
  • [24] Vial, J. and Jardy, A. 1999, Experimental comparison of the different approaches to estimate LOD and LOQ of an HPLC method. Analytical Chemistry, ACS Publications. 71, 267, pp. 2–7.
  • [25] Lavín, Á., Vicente, J. De, Holgado, M., Laguna, M.F., Casquel, R., Santamaría, B. et al. 2018, On the determination of uncertainty and limit of detection in label-free biosensors. Sensors, Multidisciplinary Digital Publishing Institute. 18, 2038.
  • [26] Hosu, O., Lettieri, M., Papara, N., Ravalli, A., Sandulescu, R., Cristea, C. et al. 2019, Colorimetric multienzymatic smart sensors for hydrogen peroxide, glucose and catechol screening analysis. Talanta, Elsevier. 204, 5, pp. 25–32.
  • [27] Keshvari, F. and Bahram, M. 2017, Selective, sensitive and reliable colorimetric sensor for catechol detection based on anti-aggregation of unmodified gold nanoparticles utilizing boronic acid–diol reaction: optimization by experimental design methodology. Journal of the Iranian Chemical Society, Springer. 14, 9, pp. 77–84.
  • [28] Chen, H., Li, S., Wang, S., Tan, Y. and Kan, J. 2013, A new catechol biosensor immobilized polyphenol oxidase by combining electropolymerization and cross-linking process. International Journal of Polymeric Materials and Polymeric Biomaterials, Taylor & Francis. 62, 62, pp. 0–6.
  • [29] Mu, S. 2006, Catechol sensor using poly (aniline-co-o-aminophenol) as an electron transfer mediator. Biosensors and Bioelectronics, Elsevier. 21, 12, pp. 37–43.
  • [30] Ameer, Q. and Adeloju, S.B. 2009, Development of a potentiometric catechol biosensor by entrapment of tyrosinase within polypyrrole film. Sensors and Actuators B: Chemical, Elsevier. 140, pp. 5–11.
  • [31] Li, D., Pang, Z., Chen, X., Luo, L., Cai, Y. and Wei, Q. 2014, A catechol biosensor based on electrospun carbon nanofibers. Beilstein Journal of Nanotechnology, Beilstein-Institut. 5, 3, pp. 46–54.
  • [32] Li, H., Kong, W., Liu, J., Liu, N., Huang, H., Liu, Y. et al. 2015, Fluorescent N-doped carbon dots for both cellular imaging and highly-sensitive catechol detection. Carbon, Elsevier. 91, pp. 66–75.
  • [33] Ma, Y., Chen, A.Y., Huang, Y.Y., He, X., Xie, X.F., He, B. et al. 2020, Off-on fluorescent switching of boron-doped carbon quantum dots for ultrasensitive sensing of catechol and glutathione. Carbon, Elsevier. 162, 2, pp. 34–44.
There are 33 citations in total.

Details

Primary Language English
Subjects Industrial Biotechnology, Analytical Chemistry, Biomaterial
Journal Section Articles
Authors

Nımet Yıldırım Tirgil 0000-0002-5973-8830

Publication Date May 31, 2022
Acceptance Date October 26, 2021
Published in Issue Year 2022 Volume: 5 Issue: 1

Cite

APA Yıldırım Tirgil, N. (2022). Paper-Based Biosensor System for Fast and Sensitive Phenolic Compounds Detection. Kocaeli Journal of Science and Engineering, 5(1), 13-21. https://doi.org/10.34088/kojose.887169