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. 2022 May 27;22(11):4092. doi: 10.3390/s22114092

Table 2.

Analytical characteristics and conditions of SY and TZ using different sensors.

Electrode SY TZ pH Method tacc, s Eacc, V Ref.
LR, μM LOD, nM LR, μM LOD, nM
GO/MWCNTs/GCE 0.09–8 25 0.09–8 10 5 LSV 70 - [26]
ERGO-AuNRs/GCE 0.01–3.0 2.4 0.03–6.0 8.6 6 DPV 300 0.3 [29]
ERGO/SPCE 0.01–20 5 0.02–20 4.5 6 DPV 180 - [25]
Fe3O4@SiO2/MWCNTs/CPE 0.5–20, 20–100 50 0.5–14, 14–100 40
70
6 SWV 180 0.2 [34]
PLC/Ag/GCE 0.5–10, 10–300 75 0.75–75, 75–750 250 4.5 DPV - - [61]
ZnO/Cysteic acid 0.1–3.0 30 0.07–1.86 10 5 DPV 120 −0.05 [33]
rGO/NiBTC/SPCE 0.05–5.0 25 0.075–5.0 50 8 DPV 360 0.1 [62]
ZnCrFeO4/CPE 0.05–19 2 0.07–47.5 10 6 DPV - - [59]
AuNPs/PDDA/Gr/GCE 0.006–5.0 2 0.008–3.0 2.5 7 DPV 360 - [28]
GCILE 0.02–5 10 0.5–15 100 7 DPV 150 0.5 [63]
GrP/CP 0.005–1.0 0.78 0.02–7.5 8.2 5 DPV 180 0 This work

LR—linear range; LOD—limit of detection; LSV—linear sweep voltammetry; DPV—differential pulse voltammetry; SWV—square wave voltammetry. GO—graphene oxide; ERGO—electrochemically reduced graphene oxide; AuNRs—gold nanorods; PLC—poly(L-cystein); rGO—reduced graphene oxide; AuNPs—gold nanoparticles; PDDA—poly(diallyldimethylammonium chloride); GCILE—1-butylpyridinium hexafluorophosphate@glassy carbon microspheres composites electrode.