Graphical Abstract
References
1.
Lázaro, C.A., Conte-Júnior, C.A., Canto, A.C., Monteiro, M.L.G.,
Costa-Lima, B., Cruz, A.G. da, et al. (2015). Biogenic amines as bacterial
quality indicators in different poultry meat species, LWT - Food Science and
Technology, 60(1): 15-21.
2.
Lázaro, C.A.,
Conte-Júnior, C.A., Cunha, F.L., Mársico, E.T., Mano, S.B. and Franco, R.M.
(2013). Validation of an HPLC methodology for the identification and
quantification of biogenic amines in chicken meat. Food Analytical Methods,
6(4): 1024-1032.
3.
Durlu-Özkaya,
F., Ayhan, K. and Vural, N. (2001). Biogenic amines produced by
Enterobacteriaceae isolated from meat products. Meat Science, 58(2):
163-166.
4.
Ruiz-Capillas,
C. and Herrero, A.M. (2019). Impact of biogenic amines on food quality and
safety. Foods, 31(12): 2368-2378.
5.
Soares, I.P.,
da Silva, A.G., da Fonseca Alves, R., de Souza Corręa, R.A.M., Ferreira, L.F.
and Franco, D.L. (2019). Electrochemical enzymatic biosensor for tyramine based
on polymeric matrix derived from 4-mercaptophenylacetic acid. Journal of Solid
State Electrochemistry, 23 (3): 985-995.
6.
Verma, N.,
Hooda, V., Gahlaut, A., Gothwal, A. and Hooda, V. (2019). Enzymatic biosensors
for the quantification of biogenic amines: a literature update. Critical
Reviews in Biotechnology, 2019: 1-14.
7.
Khan, M.Z.H.,
Liu, X., Zhu, J., Ma, F., Hu, W. and Liu, X. (2018). Electrochemical detection
of tyramine with ITO/APTES/ErGO electrode and its application in real sample
analysis. Biosensors and Bioelectronics, 118(3): 1169-1198.
8.
Cantarini, M.
V., Painter, C.J., Gilmore, E.M., Bolger, C., Watkins, C.L., and Hughes, A.M.
(2004). Effect of oral linezolid on the pressor response to intravenous
tyramine. British Journal of Clinical Pharmacology, 58(5): 470-475.
9.
Costa,
D.J.E., Martínez, A.M., Ribeiro, W.F., Bichinho, K.M., Di Nezio, M.S.,
Pistonesi, M.F., et al. (2016). Determination of tryptamine in foods using
square wave adsorptive stripping voltammetry. Talanta, 154: 134-140.
10.
da Silva, W.,
Ghica, M.E., Ajayi, R.F., Iwuoha, E.I. and Brett, C.M.A. (2019). Impedimetric
sensor for tyramine based on gold nanoparticle
doped-poly(8-anilino-1-naphthalene sulphonic acid) modified gold electrodes. Talanta,
195: 604-612.
11.
Wan, H., Sun,
Q., Li, H., Sun, F., Hu, N., and Wang, P. (2015). Screen-printed gold electrode
with gold nanoparticles modification for simultaneous electrochemical
determination of lead and copper. Sensors and Actuators, B: Chemical,
209: 336-342.
12.
Jewell, E.,
Philip, B. and Greenwood, P. (2016) Improved manufacturing performance of
screen printed carbon electrodes through material formulation. Biosensors,
6(3): 30.
13.
Rawat, K.A.,
Bhamore, J.R., Singhal, R.K. and Kailasa, S.K. (2017) Microwave assisted
synthesis of tyrosine protected gold nanoparticles for dual (colorimetric and
fluorimetric) detection of spermine and spermidine in biological samples. Biosensors
and Bioelectronics, 88: 71-77.
14.
Chen, M.,
Zeng, G., Xu, P., Lai, C. and Tang, L. (2017) How do enzymes' meet'
nanoparticles and nanomaterials?. Trends in Biochemical Sciences,
42(11): 914-930.
15.
Lan, L., Yao,
Y., Ping, J., and Ying, Y. (2017). Recent advances in nanomaterial-based
biosensors for antibiotics detection. Biosensors and Bioelectronics, 91:
504-514.
16.
Apetrei, I.M.
and Apetrei, C. (2013). Amperometric biosensor based on polypyrrole and
tyrosinase for the detection of tyramine in food samples. Sensors and
Actuators, B: Chemical, 178: 40-46.
17.
Manan,
F.A.A., Hong, W.W., Abdullah, J., Yusof, N.A. and Ahmad, I. (2019).
Nanocrystalline cellulose decorated quantum dots based tyrosinase biosensor for
phenol determination. Materials Science and Engineering C, 99: 37-46.
18.
Camargo,
J.R., Baccarin, M., Raymundo-Pereira, P.A., Campos, A.M., Oliveira, G.G.,
Fatibello-Filho, O. (2018). Electrochemical biosensor made with tyrosinase
immobilized in a matrix of nanodiamonds and potato starch for detecting
phenolic compounds, Analytica Chimica Acta, 1034: 137-143.
19.
Montereali,
M.R., Seta, L. Della, Vastarella, W. and Pilloton, R. (2010). A disposable
Laccase-Tyrosinase based biosensor for amperometric detection of phenolic
compounds in must and wine. Journal of Molecular Catalysis B: Enzymatic,
64 (3-4): 189-194.
20.
Wang, B.,
Zheng, J., He, Y. and Sheng, Q. (2013). A sandwich-type phenolic biosensor
based on tyrosinase embedding into single-wall carbon nanotubes and polyaniline
nanocomposites. Sensors and Actuators, B: Chemical, 186: 417-422.
21.
Apetrei, I.M.
and Apetrei, C. (2015). The biocomposite screen-printed biosensor based on
immobilization of tyrosinase onto the carboxyl functionalized carbon nanotube
for assaying tyramine in fish products. Journal of Food Engineering,
149: 1-8.
22.
da Silva, W.,
Ghica, M.E., Ajayi, R.F., Iwuoha, E.I. and Brett, C.M.A. (2019). Tyrosinase
based amperometric biosensor for determination of tyramine in fermented food
and beverages with gold nanoparticle doped poly(8-anilino-1-naphthalene
sulphonic acid) modified electrode. Food Chemistry, 282: 18-26.
23.
Ng, C.M., Loh,
H.S., Muthoosamy, K., Sridewi, N. and Manickam, S. (2016). Conjugation of
insulin onto the sidewalls of single-walled carbon nanotubes through
functionalization and diimide-activated amidation. International Journal of
Nanomedicine, 11: 1607-1614.
24.
Guler, Z. and
Sarac, A.S. (2016) Electrochemical impedance and spectroscopy study of the
EDC/NHS activation of the carboxyl groups on
poly(ε-caprolactone)/poly(m-anthranilic acid) nanofibers. Express
Polymer Letters, 10(2): 96-110.
25.
Rahman, M.J.
and Mieno, T. (2014). Water-dispersible multiwalled carbon nanotubes obtained
from citric-acid-assisted oxygen plasma functionalization. Journal of
Nanomaterials, 2014: 508192.
26.
Azri, F.A.,
Sukor, R., Hajian, R., Yusof, N.A., Bakar, F.A., and Selamat, J. (2017).
Modification strategy of screen-printed carbon electrode with functionalized multi-walled carbon nanotube and chitosan matrix for
biosensor development. Asian Journal of Chemistry, 29(1): 31-36.
27.
Moraes, M.B.,
Cividanes, L., and Thim, G. (2018). Synthesis of graphene oxide and
functionalized CNT nanocomposites based on epoxy resin. Journal of Aerospace
Technology and Management, 10: 1-10.
28.
Abuilaiwi, F.A.,
Laoui, T., Al-Harthi, M., and Atieh, M.A. (2010). Modification and
functionalization of multiwalled carbon nanotube (MWCNT) via fischer
esterification. Arabian Journal for Science and Engineering,. 29 (1):
31-36.
29.
Tsai, P.A.,
Kuo, H.Y., Chiu, W.M. and Wu, J.H. (2013). Purification and functionalization
of single-walled carbon nanotubes through different treatment procedures. Journal
of Nanomaterials, 2013: 3-12.
30.
Jacobs, C.B.,
Vickrey, T.L., and Venton, B.J. (2011). Functional groups modulate the sensitivity
and electron transfer kinetics of neurochemicals at carbon nanotube modified
microelectrodes. Analyst, 136 (17): 3557-3565.
31.
Venton, B.J.
and Cao, Q. (2020). Fundamentals of fast-scan cyclic voltammetry for dopamine
detection. Analyst, 145(4): 1158-1168.
32.
Rahimi-Mohseni,
M., Raoof, J.B., Ojani, R., Aghajanzadeh, T.A., and Bagheri Hashkavayi, A.
(2018). Development of a new paper based nano-biosensor using the co-catalytic
effect of tyrosinase from banana peel tissue (Musa Cavendish) and
functionalized silica nanoparticles for voltammetric determination of
L-tyrosine. International Journal of Biological Macromolecules, 113:
648-654.
33.
Tîlmaciu,
C.M. and Morris, M.C. (2015). Carbon nanotube biosensors. Frontiers in
Chemistry, 3: 1-21.
34.
Muhammad, A.,
Yusof, N.A., Hajian, R., and Abdullah, J. (2016). Construction of an
electrochemical sensor based on carbon nanotubes/gold nanoparticles for trace
determination of amoxicillin in bovine milk. Sensors (Switzerland), 16
(1): 1-13.
35.
Chakkarapani,
L.D. and Brandl, M. (2020). Carbon screen-printed electrode coated with poly
(toluidine blue) as an electrochemical sensor for the detection of tyramine. Engineering
Proceedings, 2(1): 51.