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. 2020 Feb 14;20(4):1039. doi: 10.3390/s20041039

Table 1.

Carbon-based electrochemical (EC) sensor for dopamine (DA) detection.

Material EC Method LOD Sensitivity Linear Range References
MWCNT-IE DPV 0.1 µM 8.05 µA/µM 0.5–10 µM [86]
MWCNT–DHP/GCE DPV 11 nM - 50 nM–5 µM [87]
MWCNT-Nafion/GCE DPV 2.5 nM - 10 nM–10 µM [89]
Sol–gel CCE AMP
SWV
0.07 µM
0.1 µM
0.0414 µA/µM
0.75 µA/µM
0.5–50 µM
0.5–20 µM
[119]
Pd/CNF-CPE DPV 0.2 µM - 0.5–160 µM [120]
CNF-CPE DPV 0.04 µM - 0.04–5.6 µM [121]
(MGNFs)/Si CV, DPV 0.17 µM - 1–100 µM [122]
GC/MWCNTs/Q/Nafion® CV 1.4 µM 121.6 mA/M cm2 1.4–300 µM [91]
GE–CS/GCE DPV 5 µM - 5–200 µM [92]
ITO/MWCNT-g-silica NW/Au NPs DPV 0.1 nM 17.8 nA/nM 0.1–30 nM [123]
CNT-AgHCF NPs/GCE CV 140 nM - 2.4–130 µM [124]
graphene DPV 2.64 µM - 4–100 µM [60]
CDP–GS–MWCNTs/GCE DPV 0.05 µM - 0.15–21.65 µM [125]
FGGE CV, DPV, CA 0.25 µM - 0.5–50 µM [126]
graphene-LDH/GCE CV, SWV 0.3 µM - 1–199 µM [127]
NiAl-LDH/G/GCE CV 9.6 µM 0.022 µA/µM 80–400 µM [128]
G/Pt/GCE CV, DPV 30 nM 0.9695 µA/µM 0.03–8.13 µM [129]
TiO2–graphene–GCE DPV 2 µM - 5–200 µM [130]
Cu2O/Graphene/GCE CV 10 nM - 0.1–10 µM [131]
MWCNT/GONR/GCE DPV 80 nM - 0.5–50 µM [132]
TiO2-GR/4-ABSA/GCE DPV 0.1 µM - 1–400 µM [133]
La/MWCNT CA 13 nM - 0.04 µM–0.89 mM [134]
CPE CV, DPV 3.7 µM 106.58 µA/mM 8–134 µM [135]
Graphene CV 0.5 µM - 2.5–100 µM [93]
GS–PTCA/GCE DPV 0.13 µM - 0.4–370 µM [136]
N-dope rGO NG/GCE DPV 0.25 µM - 0.5–170 µM [137]
SPGNE DPV 0.12 µM - 0.5–2000 µM [138]
GNSs CV, DPV 0.6 µM - 4–52 µM [50]
Nafion/graphene/Fc-NH2/GCE DPV 0.02 µM - 0.05–200 µM [139]
TCPP/CCG DPV 0.01 µM - 0.01–70 µM [140]
G-Au NPs/GCE DPV 1.86 µM 510.2 µA/mM cm2 5–1000 µM [141]
AuNPs-rGOS-ITO PVD 60 nM 62.7 µA/mM cm2 0.02–40 µM [142]
AuNPs/ERGO/GCE DPV 0.04 µM - 0.1–10 µM [143]
AuNPs–-CD–Graphene SWV 0.15 µM - 0.5–150 µM [144]
sulfonated graphene/GCE DPV 0.02 µM - 0.2–20 µM [145]
{AuNPs/RGO}20/GCE DPV 0.02 µM - 1–60 µM [146]
RGO–AuNPs–CSHMs DPV 0.3 µM - 1–100 µM [147]
Pd-RGO/GCE DPV 100 nM 278 µA/µM cm2 2–10 µM [148]
3D graphene/CNT/Nafion/HRP CV, AMP 20 nM 470.7 mA/M cm2 2–64 µM [149]
SWCNT–GNS/GCE DPV 10 nM - 0.1–52.5 µM [150]
CuZEA/RGO/GCE DPV 41 nM - 0.1–19 µM [151]
Pd Pt/PDDA–RGO DPV 0.04 µM - 4–400 µM [152]
RGO-Pd/GCE LSV 0.233 µM 2.62 µA/µM cm2 1–150 µM [153]
NG CV, LSV 0.93 µM - 100–450 µM [154]
HAu-G/GCE AMP 0.05 µM - 0.08–600 µM [155]
NG/PEI/GCE DPV 0.5 µM - 1–130 µM [156]
GO DPV 0.27 µM - 1–15 µM [157]
rGO-PpPD/GCE AMP 0.36 µM - 5–25 µM
50–200 µM
[158]
Fe3O4/rGO/GC DPV 0.08 µM 38.8 A/M cm2 0.4–3.5 µM [96]
CDs–CS/GCE DPV, CV 11.2 nM - 0.1–30 µM [97]
Au@ CDs–CS/GCE DPV, CV 0.001 µM - 0.01–100.0 μM [98]
3D-GF DPV, CV, AMP ~2 nM - 0.01–10 µM [159]
ERGO/HAD/GCE DPV 19 nM - 50 nM–400 µM [160]
IL-G/GCE DPV 0.812µM 0.063 µA/µM 5–275 µM [161]
Au NPs@ PS/RGO/GCE DPV 5 nM 3.44 µA/µM 0.05–20 µM [162]
Ag NPs/rGO LSV 5.4 µM - 10–800 µM [163]
GN-PSS-Pt CA 40 nM 302.2 µA/mM cm2 0.2 µM–4 mM [164]
GR–SnO2/CILE DPV 0.13 µM - 0.5–500 µM [165]
SDS–GN/SnO2 DPV 80 nM - 0.1–10 µM [166]
GO/SiO2–MIPs CA 30 nM - 50 nM–160 µM [167]
ZnO-sG-Nafion AMP 1 µM - 10–800 µM [168]
MWCNT/GO/GCE DPV 22 nM 1.53 µA/µM cm2 0.2–400 µM [169]
3D-GN@WO3 NW AMP 238 nM 1.306 mA/mM cm2 10–150 µM [170]
Au @Pd–RGO/GCE DPV 2 nM 6.08 µA/µM cm2 0.01–100 µM [171]
Fe3O4-NH2@GS/GCE DPV 0.126 µM - 0.2–38 µM [172]
Pd–RGO LSV - - 2–63 µM [173]
Pt/RGO/GCE DPV 0.25 µM - 10–170 µM [174]
GNS/PEI/AuNP DPV 0.2 µM 2.64 µA/µM cm2 2–48 µM [175]
sG/GCE DPV 2.8 µM 11.67 nA/µM 20 µM–0.4 mM [176]
ERGO–FA/GCE AMP 0.19 µM 96.25 µA/µM cm2 0.6–1000 µM [177]
Trp–GR DPV 0.29 µM - 0.5–110 µM [178]
3D–RGO/GCE DPV 0.17 µM 244.17 mA/mM cm2 5 µM–1 mM [179]
GEF/CFE DPV 1.36 µM - 1.36–125.69 µM [99]
ERGO AMP, DPV 0.1 µM - 0.1–10 µM [180]
ERGO SWV 20 nM - 25 nM–5 µM [181]
(f-RGO)/GCE DPV 3 µM - 5–70 µM
100–600 µM
[182]
NiONP–MWCNT–DHP/GCE DPV 50 nM 1.9 A/M 0.07–4.8 μM [100]
Pyrolytic carbon CV, DPV 2.3 µM 0.20 µA/µM cm2 18–270 µM [183]
Ag NPs/SiO2/GO/GCE SWV 0.26 µM - 2–80 µM [101]
Au/RGO/GCE DPV 1.4 µM - 6.8–41 µM [102]
CTAB–GO/MWCNT/GCE DPV 1.5 µM - 5–500 µM [62]
ERGO DPV 0.5 µM - 0.5–60 µM [184]
ErGO/CFE DPV 0.77 μM - 1.5–224.82 μM [185]
Au@PPy/RGOS DPV 18.29 pM 16.4 µA/µM 0.1–5000 nM [186]
rGO/TiO2 {001}/GCE DPV 6 μM - 2–60 μM [187]
Fe3O4/rGO/GCE DPV 0.12 μM 2.733 µA/µM 0.5–100 μM [188]
rGO–CDs/GCE DPV 1.5 nM - 10 nM–450 μM [189]
Lap/G/GCE DPV 0.25 μM - 0.5–170 μM [190]
Cu(tpa)–EGR/GCE DPV 0.21 μM - 1–50 μM [191]
Cr–G/GCE SWV - - 1–10 μM
10–100 μM
[192]
CNPEs FSCV 25 nM - 0.1–10 [105]
CNS–Ta FSCV 8 nM 0.002 nA/µM µm2 100 nM–100 μM [106]
G–AN DPV 0.24 μM - 1–100 μM [107]
rGO/Fe3O4/GCE AMP 7 nM 3.15 µA/µM cm2 0.01–100.55 μM [193]
GNB/GCE CV 0.58 μM 0.95 µA/µM cm2 2 μM–0.2 mM [108]
(PLL/GO/GCE) DPV 21 nM 19.72 µA/µM cm2 0.5–35 μM [109]
CS/N, GQDs@SPCE DPV 0.145 μM 418 µA/mM cm2 1–100 μM
100–200 μM
[111]
3D pGO–Au NP–pGO–modified ITO CV 1.28 µM - 0.1–30 µM [112]
L–His SNGC SWV 0.1 µM - 50–200 µM [113]
PEDOT: Nafion-SDS
PEDOT: Nafion-SDBS
FSCV 12 nM
9 nM
23.7 nA/µM
34 nA/µM
- [114]
Carbon Nanorod FSCV 60 nM 5 nA/µM - [115]
MWCNT-modified UNCD DPV 9.5 nM 36 µA/µM cm2 33 nM–1 µM [116]
rGO–Co3O4/GCE AMP 0.277 µM 0.389 µA/µM cm2 1–30 µM [69]
rCAG AMP 30 nM 66.8 μA/mM cm2 0.2–90 µM [70]
f-CNTs/GC DPV 5.3 µM - 8–45 µM [2]
GCE/PANI–NiO
GCE/PANI–ZnO
GCE/PANI–Fe3O4
CV 15.3 nM
16.6 nM
17.6 nM
0.078 µA/µM
0.089 µA/µM
0.058 µA/µM
2.4–20 µM [73]
PEDOT–LSG DPV 0.33 µM 0.22 µA/µM 1–150 µM [117]
MnO2 NWs/ERGO/GCE CV, SDLSV 1 nM - 0.01–0.10 µM
0.10–1.0 µM
1.0 µM–80 µM
[118]

MWCNT-IE—MWCNT-intercalated graphite electrodes; DHP—Dihexadecylphosphate; GCE—Glassy carbon electrode; CNF—Carbon nanofibers; MGNFs—Multilayer graphene nanoflake films; g-silica NW—Grafted silica network; AgHCF—Silver hexacyanoferrate; CDP—Polycyclodextrin; GS—Graphene sheet; FGGE—Functionalized-graphene modified graphite electrode; LDH—Layered double hydroxide; GONR—Graphene oxide nanoribbon;4-ABSA—4-aminobenzenesulfonic acid; La—Lanthanum; PTCA—3,4,9,10-perylenetetracarboxylic acid; NG—Nitrogen doped graphene; SPGNE—Screen-printed graphene electrode; GNSs—Graphene nano-sheets; Fc-NH2—1-[(4-amino) phenylethynyl] ferrocene; TCPP—Meso-tetra (4-carboxyphenyl) porphine; CCG—Chemically converted graphene; rGOS—Reduced graphene oxide sheets; CSHMs—Chitosan/silica sol–gel hybrid membranes; HRP—Horseradish peroxidase; CuZEA—Cu-zeolite A; HAu-G—Hollow gold-graphene; PpPD—Poly(p-phenylenediamine); 3D-GF—3D graphene foam; HAD—1,6-hexanediamine; PS—Polystyrene; GN-PSS—Graphene- Poly (sodium 4-styrenesulfonate); CILE—Carbon ionic liquid electrode; MIPs—Molecularly imprinted polymers; sG—Solar graphene; 3D-GN—Three-dimensional graphene network; WO3—Tungsten trioxide; NW—Nanowire; FA—ferulic acid; Trp-GR—Tryptophan-functionalized graphene nanocomposite; f-RGO—Flower-like graphene-nanosheet clusters; Lap—Laponite; Cu(tpa)—Copper terephthalate metal-organic framework.