| 4952 |
17 |
MoO3–x NUs |
biodegradation-medicated enzymatic activity-tunable molybdenum oxide nanourchins (MoO3–x NUs), which selectively perform therapeutic activity in tumor microenvironment via cascade catalytic reactions, while keeping normal tissues unharmed due to their responsive biodegradation in physiological environment |
|
|
|
|
|
|
|
|
| 4953 |
19 |
Cu-nanoflower@gold nanoparticles-GO NFs |
glucose detection |
|
|
|
|
|
|
|
|
| 4954 |
20 |
HMON-Au@Cu-TA |
photodynamic therapy (PDT) and chemodynamic therapy (CDT) |
|
|
|
|
|
|
|
|
| 4955 |
21 |
Fe-N/C |
Detection of alkaline phosphatase |
Alkaline phosphatase (ALP) |
Color |
0.05-100 |
U/L |
0.02 |
U/L |
|
|
| 4956 |
23 |
Co3O4@Co-Fe oxide double-shelled nanocages |
Detection |
acetylcholinesterase (AChE) |
Color |
0.0008-1 |
mU/mL |
0.0002 |
mU/mL |
|
|
| 4957 |
23 |
Co3O4@Co-Fe oxide double-shelled nanocages |
Detection |
H2O2 |
Color |
0.02 - 600 |
μM |
0.02 |
μM |
|
|
| 4958 |
24 |
core–shell UMOFs@Au NPs |
Cancer therapy |
|
|
|
|
|
|
|
|
| 4959 |
27 |
Cu–N–C |
Detection |
organophosphorus pesticides |
Color |
1-300 |
ng/mL |
0.6 |
ng/mL |
|
|
| 4960 |
27 |
Cu–N–C |
Detection |
acetylcholine |
Color |
10-8000 |
μM |
1.24 |
μM |
|
|
| 4961 |
29 |
PDA‐Pt‐CD@RuFc NPs |
Cancer therapy |
|
|
|
|
|
|
|
|
| 4962 |
31 |
FeS2 NPs |
quantitative detection of H2O2 or GSH |
GSH |
Color |
0.20-3.5 |
μM |
0.15 |
μM |
|
|
| 4963 |
31 |
FeS2 NPs |
quantitative detection of H2O2 or GSH |
H2O2 |
Color |
2-80 |
μM |
0.91 |
μM |
|
|
| 4964 |
32 |
Au2Pt |
synergistic chemodynamic therapy / phototherapy |
|
|
|
|
|
|
|
|
| 4965 |
33 |
Co/PMCS |
Sepsis Management |
|
|
|
|
|
|
|
|
| 4966 |
35 |
Cu5.4O USNPs |
exhibit cytoprotective effects against ROS-mediated damage at extremely low dosage and significantly improve treatment outcomes in acute kidney injury, acute liver injury and wound healing. |
|
|
|
|
|
|
|
|
| 4967 |
36 |
P-Co3O4 |
Detection of H2O2 and Glucose |
GSH |
Color |
10-30 |
μM |
0.69 |
μM |
|
|
| 4968 |
36 |
P-Co3O4 |
Detection of H2O2 and Glucose |
H2O2 |
Color |
1-30 |
μM |
0.77 |
μM |
|
|
| 4969 |
36 |
R-Co3O4 |
Detection of H2O2 and Glucose |
GSH |
Color |
1-20 |
μM |
0.32 |
μM |
|
|
| 4970 |
36 |
R-Co3O4 |
Detection of H2O2 and Glucose |
H2O2 |
Color |
1-30 |
μM |
0.43 |
μM |
|
|
| 4971 |
38 |
Pt@PCN222-Mn |
ROS scavenge |
•O2− |
|
|
|
|
|
|
|
| 4972 |
39 |
Au@Rh‐ICG‐CM |
Alleviate Tumor Hypoxia for Simultaneous Bimodal Imaging and Enhanced Photodynamic Therapy |
|
|
|
|
|
|
|
|
| 4973 |
40 |
MoS2/g-C3N4 HNs |
sulfide ions sensing |
S2- |
Color |
0.1-10 |
μM |
37 |
μM |
|
|
| 4974 |
42 |
Atv/PTP-TCeria NPs |
the sepsis-induced AKI therapy |
ROS |
Unsure |
|
|
|
|
|
|
| 4975 |
44 |
Sm-TCPP-Pt |
generating oxygen for PDT |
H2O2 |
|
|
|
|
|
|
|
| 4976 |
45 |
Au40/γ-CD-MOF |
the property tuning and practical application of metal nanoclusters |
|
Color |
|
|
|
|
|
|
| 4977 |
47 |
CuTA |
ROS scavenge |
•O2− •OH |
|
|
|
|
|
|
|
| 4978 |
49 |
Lipo-OGzyme-AIE |
oxygen generation |
|
|
|
|
|
|
|
|
| 4979 |
52 |
EPL-coated MnO2 nanosheets (EM) |
CAT |
H2O2 |
|
|
|
|
|
|
|
| 4980 |
54 |
GOx@MOF-545(Fe) |
|
glucose |
Color |
0.5–100 |
μM |
0.28000000000000003 |
μM |
|
|
| 4981 |
56 |
MOF-546(Fe) |
cascade reaction |
glucose |
|
|
|
|
|
|
|
| 4982 |
60 |
Cu2MoS4 (CMS)/Au |
Hypoxia Alleviation |
O2- |
color |
|
|
|
|
|
|
| 4983 |
61 |
Fe3O4-TiO2/rGO (FTG) |
detection and photodegradation of pesticide |
atrazine |
Color |
2-20 |
μg/L |
2.98 |
μg/L |
|
|
| 4984 |
63 |
Co-based homobimetallic hollow nanocages |
detection |
acetylcholinesterase (AChE) |
Color |
0.0001-1 |
mU/mL |
0.1 |
mU/L |
|
|
| 4985 |
64 |
NCNTs@MoS2 |
Detection of AA |
Ascorbic acid (AA) |
Color |
0.2-80 |
μM |
0.12 |
μM |
|
|
| 4986 |
64 |
NCNTs@MoS2 |
Detection of H2O2 |
H2O2 |
Color |
2–50 |
μM |
0.14 |
μM |
|
|
| 4987 |
66 |
Fe3O4 NP |
Colorimetric quantification of phenol |
Phenol |
Color |
1.67-1200 |
μM |
3.79 |
μM |
|
|
| 4988 |
68 |
Fe3O4@SiO2-NH2-Au@PdNPs |
Detection of Glucose |
glucose |
Color |
0.010−60 |
μM |
0.06 |
μM |
0.93 |
|
| 4989 |
71 |
Au/Co@HNCF |
identify the low levels of uric acid (UA) in human serum |
uric acid |
E-chem |
0.1–2500 |
μM |
0.023 |
μM |
|
|
| 4990 |
73 |
vanadium oxide nanodots (VOxNDs) |
Antibacterial |
|
|
|
|
|
|
|
|
| 4991 |
75 |
BDD|PB nanozymes |
utmost sensitivity of the H2O2 sensor |
H2O2 |
E-chem |
1×10-7-1×10-3 |
M |
0.14 ± 0.02 |
A M -1 cm-2 |
|
|
| 4992 |
76 |
DNA-Ag/Pt NCs |
detection of miRNA-21 |
miRNA-21 |
Color |
1-700 |
pM |
0.6 |
pM |
|
|
| 4993 |
77 |
TPP-MoS2 QDs |
mitigate AD pathology |
O2•- •OH H2O2 |
|
|
|
|
|
|
|
| 4994 |
78 |
AuNP-ICA platform |
Detection of Escherichia coli O157:H7 in Milk |
E. coli |
Color |
5-2.5*10^5 |
CFU/mL |
12.5 |
CFU/mL |
90.94 |
|
| 4995 |
82 |
PNCNzyme |
Activating IAA to produce abundant ROS and triggering tumor cell apo-ptosis |
|
|
|
|
|
|
|
|
| 4996 |
84 |
Co-V MMO nanowires |
Antibacterial |
|
|
|
|
|
|
|
|
| 4997 |
87 |
CeM |
treatment of Alzheimer's disease |
|
|
|
|
|
|
|
|
| 4998 |
90 |
heteroatom-doped graphene |
Constructingnanozymesensorarrayfordetectingpesticides |
|
|
|
|
|
|
|
|
| 4999 |
91 |
Au@AgPt |
detection |
Hg2+ |
SERS |
1-10000 |
nM |
0.28 |
nM |
|
|
| 5000 |
91 |
Au@AgPt |
detection |
Hg2+ |
Color |
1-100 |
μM |
0.52 |
μM |
|
|
| 5001 |
92 |
Rhodium |
Anti-Inflammation and Antitumor Theranostics of Colon Diseases |
RONS |
Fluor |
|
|
|
|
|
|
| 5002 |
94 |
cNFs |
antimicrobial |
H2O2 |
Color |
|
|
|
|
|
|
| 5003 |
95 |
Co3O4 |
Detection of S. aureus |
S. aureus |
Color |
10–10000 |
cfu/mL |
8 |
cfu/mL |
|
|
| 5004 |
96 |
AuNCs |
detaction of tetracycline antibiotics |
tetracycline antibiotics |
Color |
1-16 |
μM |
46 |
nM |
|
|
| 5005 |
97 |
Prussian Blue |
detection of lactate |
lactate |
E-chem |
|
|
|
|
|
|
| 5006 |
98 |
Tb-OBBA-Hemin |
Detection and Degradation of Estrogen Endocrine Disruptors |
17β-estradiol |
Fluor |
0-100 |
nM |
5 |
nM |
|
|
| 5007 |
101 |
CeO2 NPs |
protection from DEN-induced liver damage via antioxidative activity. |
|
|
|
|
|
|
|
|
| 5008 |
103 |
CeO2NRs-MOF |
the on-site determination of Cr(VI) in real water samples |
Cr(VI) |
Color |
0.03−5 |
μM |
20 |
nM |
95%-105% |
|
| 5009 |
105 |
AU-1 |
exhibited excellent enzymatic activity towards the fungal cells. |
|
|
|
|
|
|
|
|
| 5010 |
106 |
IMSN-PEG-TI |
The results show that IMSN nanozyme exhibits both intrinsic peroxidase-like and catalase-like activities under acidic TME, which can decompose H2O2 into hydroxyl radicals (•OH) and oxygen (O2), respectively |
|
|
|
|
|
|
|
|
| 5011 |
108 |
HP-MIL-88B-BA |
exhibited a rapid response to glucose (10 min) |
glucose |
Color |
2-100 |
μM |
0.98 |
μM |
|
|
| 5012 |
109 |
IrOx |
demonstrate for the first time that iridium oxide nanoparticles (IrOx) possess acid-activated oxidase and peroxidase-like functions and wide pH-dependent catalase-like properties. Integrating of glucose oxidase (GOD) could unlock its oxidase and peroxidase activities by gluconic acid produced by catalysis of GOD towards glucose in cancer cells, and the produced H2O2 can be converted to O2 to compensate its consumption in GOD catalysis due to the catalase-like function of the nanozyme, which result in continual consumption of glucose and self-supplied substrates for generating superoxide anion and hydroxyl radical. |
|
|
|
|
|
|
|
|
| 5013 |
110 |
SnSe |
is capable of mimicking native dehydrogenases to efficiently catalyze hydrogen transfer from 1-(R)-2-(R')-ethanol groups |
|
|
|
|
|
|
|
|
| 5014 |
111 |
F-BS NCs |
virus-like F-BS NCs have been successfully constructed by simple ultrasound that possesses PA and IRT imaging capacity, by which synergetic PT and PT-enhanced nanozymatic biocatalytic cancer-combating therapy is hopeful to be realized. |
|
|
|
|
|
|
|
|
| 5015 |
112 |
Cerium Oxide Nanoparticles |
More studies looking into the therapeutic effects of cerium oxide nanoparticles in systemic conditions caused inter alia by oxidative stress, inflammation, and bacteria. Therapeutic effects of these nanoparticles in diseases that require tissue regeneration (scaffolds) need to be further explored |
|
|
|
|
|
|
|
|
| 5016 |
113 |
PB |
lactate biosensor |
lactate |
E-chem |
|
|
|
|
|
|
| 5017 |
114 |
Pt-carbon nanozyme |
The established Pt-carbon nanozyme enabled us to carry out a simultaneous favorable CAT-like activity and high-efficiency photothermal/photodynamic tumor therapy in near-infrared light. |
|
|
|
|
|
|
|
|
| 5018 |
115 |
CuO-C-dots |
determination of glucose |
glucose |
E-chem |
0.5-2-5 |
mM |
0.2 |
mM |
88%-94% |
|
| 5019 |
117 |
Au/Fe-MOF |
|
prostate specific antigen |
E-chem |
0.001-100 |
ng/mL |
0.13 |
pg/mL |
|
|
| 5020 |
118 |
Au@Au-aptamer |
|
HIF-1α |
Color |
0.3-200 |
ng/L |
0.2 |
ng/L |
97.2-101.3% |
|
| 5021 |
119 |
ZIF-67 |
|
L-Cys |
Fluor |
0.05-6 |
μM |
31 |
nM |
98-103% |
|
| 5022 |
120 |
Fe3O4-Au@Ag |
|
CaMV35S gene |
E-chem |
1x10-16-1x10-10 |
M |
1.26x10-17 |
M |
|
|
| 5023 |
121 |
CeO2/C nanowires |
|
glucose |
Color |
1-100 |
μM |
0.69 |
μM |
|
|
| 5024 |
123 |
Cu‐HNCS |
|
|
|
|
|
|
|
|
Tumor parallel catalytic therapy |
| 5025 |
124 |
PPy@MnO2-BSA |
|
|
|
|
|
|
|
|
T1-MRI-guided combined photothermal therapy (PTT) and photodynamic therapy (PDT) of tumors |
| 5026 |
125 |
Ag@Au core/shell TNPs |
|
glucose |
Color |
1-30 |
mM |
1 |
mM |
90.2-103% |
|
| 5027 |
126 |
Ab2-MSN-PQQ |
|
prostate specific antigen |
Color |
0.005-0.5 |
ng/mL |
1 |
pg/mL |
|
|
| 5028 |
127 |
GOx-MnO2/HMME |
|
|
|
|
|
|
|
|
Magnetic resonance imaging and anti-tumor efficiency in vitro and in vivo |
| 5029 |
128 |
BNS-CDs |
|
H2O2 |
Color |
3-30 |
μM |
0.8 |
μM |
92.7-108.3% |
Smartphone colorimetric determination |
| 5031 |
129 |
CoFe-LDH/CeO2 |
|
H2O2 |
Color |
0.01-1 |
mM |
0.003 |
mM |
|
|
| 5030 |
129 |
CoFe-LDH/CeO2 |
|
glucose |
Color |
0.05-2 |
mM |
0.015 |
mM |
|
|
| 5032 |
130 |
Ru4PCVs |
|
|
|
|
|
|
|
|
A new type of catalytic micro-compartment with multi-functional activity |
| 5033 |
134 |
CTF-1 |
determination of rutin in tablets and in Flos Sophorae Immaturus |
rutin |
CL |
0.03–0.25 |
μmol·L−1 |
0.015 |
μmol·L−1 |
|
The CL system gave a linear response to the concentration of rutin in the range of 0.03–0.25 μmol·L−1 with a limit of detection of 0.015 μmol·L−1. |
| 5034 |
134 |
CTF-1 |
determination of rutin in tablets and in Flos Sophorae Immaturus |
rutin |
CL |
0.03–0.25 |
μmol·L−1 |
0.015 |
μmol·L−1 |
|
|
| 5035 |
137 |
Zr-MOF |
Quantification and discrimination of phosphorylated proteins |
α-casein |
Color |
0.17-5 |
μg/mL |
0.16 |
μg/mL |
|
|
| 5036 |
137 |
Zr-MOF |
Quantification and discrimination of phosphorylated proteins |
α-casein |
Color |
0.17-5 |
μg/mL |
0.16 |
μg/mL |
|
Further, the absorbance at 652 nm is linearly decreased with the increased levels of α-CS ranging from 0.17 to 5.0 μg/mL (Fig. 4B). The equation can be written as A = −0.0554[α-CS] (μg/mL) + 0.4119 (R2 = 0.996). The limit of detection (LOD) is calculated to be 0.16 μg/mL based on S/N = 3. |
| 5037 |
138 |
Ru@CeO2 YSNs |
Cancer therapy |
|
|
|
|
|
|
|
|
| 5039 |
139 |
AuNFs/Fe3O4@ZIF-8-MoS2 |
Electrochemical detection of H2O2 released from cells |
H2O2 |
E-chem |
15-120 |
mM |
0.9 |
μM |
|
One was from 5 μM to 15 mM with a linear regression equation of I(μA) = 0.0171C(μM) + 16.6 (R2 = 0.990) (Fig. 4d), and the other was from 15 mM to 120 mM with a linear regression equation of I(μA) = 0.00417C(μM) + 191 (R2 = 0.993) (Fig. 4e). The reason for two linear regions was probably caused by the different H2O2 absorption and activation behavior on AuNFs/Fe3O4@ZIF-8-MoS2 hybrid catalyst under different H2O2 concentration [4]. |
| 5038 |
139 |
AuNFs/Fe3O4@ZIF-8-MoS2 |
Electrochemical detection of H2O2 released from cells |
H2O2 |
E-chem |
5-15000 |
μM |
0.9 |
μM |
|
|
| 5040 |
140 |
Fe3+/AMP CPs |
cascade reaction |
|
|
|
|
|
|
|
|
| 5041 |
141 |
CDAu |
detection of Pb(II) |
Pb(II) |
Color |
0.0005–0.46 |
μM |
0.25 |
nM |
|
|
| 5042 |
141 |
CDAu |
detection of Pb(II) |
Pb(II) |
Color |
0.0005–0.46 |
μM |
0.25 |
nM |
|
Thus, a new and highly sensitive synergetic catalytic fluorescence method for the determination of 0.0005–0.46 μmol/L Pb(II) was established, with a detection limit of 0.25 nmol/L, |
| 5043 |
142 |
CDs |
conformational transition of pDNA |
|
|
|
|
|
|
|
|
| 5044 |
144 |
Au21Pd79 |
glucose detection |
glucose |
Color |
5-400 |
μM |
0.85 |
μM |
|
|
| 5045 |
145 |
Ag/ZnMOF |
detection of bleomycin |
bleomycin |
E-chem |
0.5-500 |
nM |
0.18 |
nM |
|
Photoelectrochemical |
| 5046 |
145 |
Ag/ZnMOF |
detection of bleomycin |
bleomycin |
E-chem |
0.5-500 |
nM |
0.18 |
nM |
|
|
| 5047 |
147 |
Fe3O4@Cu/GMP |
pollutant removal |
|
|
|
|
|
|
|
|
| 5048 |
148 |
AgNP@CD |
Detection of H2O2 and Glucose |
Glucose |
Color |
1-600 |
μM |
10 |
nM |
|
|
| 5049 |
148 |
AgNP@CD |
Detection of H2O2 and Glucose |
H2O2 |
Color |
0.01-9 |
μM |
9 |
nM |
|
|
| 5050 |
149 |
NiO |
detection of P(III) |
P(III) |
Fluor |
0-10 |
mM |
1.46 |
μM |
|
|
| 5051 |
150 |
Co3O4 NPs |
detection of L-Ascorbic acid |
L-Ascorbic acid |
Color |
0.01-0.35 |
mM |
3.91 |
μM |
|
|
| 5052 |
150 |
Co3O4@β-CD NPs |
detection of L-Ascorbic acid |
L-Ascorbic acid |
Color |
0.01-0.6 |
mM |
1.09 |
μM |
96.8% - 113.0% |
|
| 5053 |
150 |
Co3O4@β-CD NPs |
detection of L-Ascorbic acid |
L-Ascorbic acid |
Color |
0.01-0.6 |
mM |
1.09 |
μM |
96.8% - 113.0% |
Besides, in order to investigate the precision of Co3O4@β-CD NPs detection method, recovery experiments were made by adding a serious of AA solution with different concentration. As shown in Table S3, the average recovery of all the samples was range from 96.8% to 113.0%. |
| 5054 |
151 |
Hf-DBP-Fe |
Cancer therapy |
|
|
|
|
|
|
|
|
| 5055 |
154 |
GOD/hPB@gellan |
Cancer therapy |
|
|
|
|
|
|
|
|
| 5056 |
155 |
Au NCs-ICG |
Cancer therapy |
|
|
|
|
|
|
|
|
| 5057 |
156 |
Au@NH2-MIL-125(Ti) |
Colorimetric detection of H2O2 and cysteine |
H2O2 |
Color |
2–10 |
μM |
0.24 |
μM |
|
|
| 5058 |
156 |
Au@NH2-MIL-125(Ti) |
Colorimetric detection of Hg2+ |
Hg2+ |
Color |
1-5 |
μM |
0.1 |
μM |
104.1±3.03 |
|
| 5059 |
156 |
Au@NH2-MIL-125(Ti) |
Colorimetric detection of Hg2+ |
cysteine |
Color |
1–10 |
μM |
0.14 |
μM |
93.8±3.23 |
|
| 5060 |
156 |
Au@NH2-MIL-125(Ti) |
Colorimetric detection of Hg2+ |
Hg2+ |
Color |
1-5 |
μM |
0.1 |
μM |
104.1±3.03 |
104.1±3.03 at 3μM; 91.56±2.03 at 6μM; 106.9±2.53 μM |
| 5061 |
156 |
Au@NH2-MIL-125(Ti) |
Colorimetric detection of Hg2+ |
cysteine |
Color |
1–10 |
μM |
0.14 |
μM |
93.8±3.23 |
93.8±3.23 at4.0 μM; 100.3 ±5.62 at 7.0 μM; 103.5±6.13 at 9.0 μM |
| 5062 |
157 |
PEG/Ce-Bi@DMSN |
in vitro photothermal-enhanced nanocatalytic therapeutic efficacy |
|
|
|
|
|
|
|
|
| 5063 |
158 |
AgPd@BSA/DOX |
Ag/Pd bimetal nanozyme with enhanced catalytic and photothermal effects for ROS/hyperthermia/chemotherapy triple-modality antitumor therap |
|
|
|
|
|
|
|
|
| 5064 |
159 |
Au@Pt |
Au@Pt nanozymes were introduced to develop a low-cost, rapid, visual and highly sensitive immunochromatographic assay for streptomycin detection |
streptomycin |
Color |
|
|
0.06 |
ng/ml |
|
|
| 5065 |
159 |
Au@Pt |
Au@Pt nanozymes were introduced to develop a low-cost, rapid, visual and highly sensitive immunochromatographic assay for streptomycin detection |
streptomycin |
Color |
|
|
0.06 |
ng/ml |
|
The qualitative LOD was 0.1 ng mL−1 by the naked eye, and the quantitative LOD was 0.06 ng mL−1. |
| 5066 |
160 |
Fe-N-C |
It is interesting that Fe-N-C not only demonstrated the similar function of CYP3A4 in the metabolization of 1,4-DHP but also had avery high level of similarity in inhibiting interactions with other drugs |
|
|
|
|
|
|
|
|
| 5067 |
161 |
CeO2/Mn3O4 Nanocrystals |
Epitaxially Strained CeO2 /Mn3 O4 Nanocrystals as an Enhanced Antioxidant for Radioprotection |
|
|
|
|
|
|
|
|
| 5069 |
162 |
Ir@MnFe2O4 NPs |
A mitochondria-targeting magnetothermogenic nanozyme for magnetinduced synergistic cancer therapy |
|
|
|
|
|
|
|
antitumor |
| 5068 |
162 |
Ir@MnFe2O4 NPs |
A mitochondria-targeting magnetothermogenic nanozyme for magnetinduced synergistic cancer therapy |
|
|
|
|
|
|
|
|
| 5070 |
164 |
PBNPs in TiNM |
To use the POD-like activity of PBNPs in sensitive detection of telomerase, TMB, one of the well-studied substrates for evaluating POD activity, was used in our design |
telomerase |
Color |
|
|
1 |
cell |
|
|
| 5071 |
165 |
VONP-LPs |
Above results confirmed the ultra sensitivity and excellent specificity of the VONP-LPs based dual-modality biosensor proving applicability of developed sensor for real samples (Fig. 5b). To confirm the practicability real clinical samples are examined. Different types of clinical NoV (GII. 2, GII. 3, GII.4) from human feces of infected patients are detected using the developed dual-modality sensor |
NoV-LPs and clinical samples |
Color |
100-107 |
copies/ml |
72 |
copies/ml |
|
|
| 5072 |
165 |
VONP-LPs |
To determine the linear range and sensitivity of the developed dualmodality sensor, different concentrations of NoV-LPs are examined. Anti-NoV antibody-conjugated VONP-LPs, MNPs and aliquot of NoV-LPs with various concentrations are mixed. VONP-LPs and the MNPs are bound with NoV-LPs through the specific interaction with antibody on their surface and a nanoconjugate of VONP-LPs, NoV-LPs and MNPs is formed. |
NoV-LPs |
Color |
10-108 |
fg/ml |
4.1 |
fg/ml |
|
|
| 5073 |
166 |
CB-CQDs |
The detection of biothiols was performed as follows: in a series of colorimetric tubes, 0.5 mL of TMB (20 mM), 0.5 mL of H2O2 (25 mM), and 0.1 mL of CB-CQDs were fully mixed in 3.8 mL of HAc-NaAc buffer at pH4.5. Then, various concentrations of biothiols standard solution (0.1 mL) were added into the above mixture. After they were well mixed and incubated at 40 °C for 25 min, the absorption spectra were recorded on a Unico 4802 ultraviolet-visible spectrophotometer at room temperature. The calibration curves for biothiols were established according to the decrease of absorbance defined as ΔA=A0﹣A, where A0 and A denote the absorbance at 652 nm without and with analyte, individually. |
cysteine |
Color |
0.5-20 |
μM |
0.4 |
μM |
95.9±2.7 |
105.7±2.0； 109.3±1.1； 99.7±4.3； 91.5±1.0； 98.2±2.3 |
| 5074 |
166 |
CB-CQDs |
The detection of biothiols was performed as follows: in a series of colorimetric tubes, 0.5 mL of TMB (20 mM), 0.5 mL of H2O2 (25 mM), and 0.1 mL of CB-CQDs were fully mixed in 3.8 mL of HAc-NaAc buffer at pH4.5. Then, various concentrations of biothiols standard solution (0.1 mL) were added into the above mixture. After they were well mixed and incubated at 40 °C for 25 min, the absorption spectra were recorded on a Unico 4802 ultraviolet-visible spectrophotometer at room temperature. The calibration curves for biothiols were established according to the decrease of absorbance defined as ΔA=A0﹣A, where A0 and A denote the absorbance at 652 nm without and with analyte, individually. |
cysteine |
Color |
0.5-20 |
μM |
0.4 |
μM |
95.9±2.7 |
|
| 5075 |
167 |
UsAuNPs/MOFs |
H2O2 is widely used in the treatment of bacterial infections. However, compared with H2O2, hydroxyl radicals are much more reactive and can cause more serious oxidative damages to bacteria.[37] Given the excellent POD-like activity of the prepared UsAuNPs/MOFs, the in vitro antimicrobial activities against Staphylococcus aureus and Escherichia coli were evaluated in the presence of H2O2. |
|
|
|
|
|
|
|
|
| 5078 |
168 |
MIL-101(Fe) |
According to the enzyme cascade amplification strategy, the MIL-101(Fe) nanozyme in conjunction with AChE and ChOx provided a novel label-free fluorescent assay for detection of choline and ACh with high selectivity and sensitivity. Given this, this proposed sensing strategy was successfully utilized to detect the choline in milk and ACh in human plasma with desirable results |
choline |
Fluor |
0.05-10 |
μM |
20 |
nM |
|
|
| 5076 |
168 |
MIL-101(Fe) |
According to the enzyme cascade amplification strategy, the MIL-101(Fe) nanozyme in conjunction with AChE and ChOx provided a novel label-free fluorescent assay for detection of choline and ACh with high selectivity and sensitivity. Given this, this proposed sensing strategy was successfully utilized to detect the choline in milk and ACh in human plasma with desirable results |
H2O2 |
Fluor |
0.1-130 |
μM |
1.1 |
nM |
|
|
| 5077 |
168 |
MIL-101(Fe) |
According to the enzyme cascade amplification strategy, the MIL-101(Fe) nanozyme in conjunction with AChE and ChOx provided a novel label-free fluorescent assay for detection of choline and ACh with high selectivity and sensitivity. Given this, this proposed sensing strategy was successfully utilized to detect the choline in milk and ACh in human plasma with desirable results |
Ach |
Fluor |
0.1-100 |
μM |
8.9 |
nM |
|
|
| 5079 |
169 |
FeTPP assemblies within AuTTMA monolayer |
The catalytic properties of the nanozymes were studied in PBS buffer through the activation of a nonfluorescent resorufin-based profluorophore (pro-Res, Figure 1B), wherereduction of theazide resultsinfragmentation and release of the fluorescent resorufin molecule |
|
|
|
|
|
|
|
|
| 5080 |
171 |
HS-PtNPs |
These obvious advantages prompted us to explore the practical use of HS-PtNPs. The pyridine ring of isoniazid has strong reductive hydrazyl substitution, which can compete with TMB for the catalytic site of HS-PtNPs (Scheme 1). The introduction of isoniazid in HS-PtNPs-catalyzed oxidation process of TMB results in a lower efficiency and colorless reaction in TMB oxidation. |
isoniazid |
Color |
2.5-250 |
μM |
1.7 |
μM |
95%-103% |
|
| 5081 |
172 |
Fe3O4@PDA@BSA-Bi2S3 |
a Fe3O4@PDA@BSA-Bi2S3 composite theranostic agent was successfully prepared for synergistic tumor PTT and CDT, in which the BSA coating endows the NPs with colloidal stability and both in vitro and in vivo biocompatibility. |
|
|
|
|
|
|
|
|
| 5082 |
173 |
MoO3 NPs |
Acid phosphatase (ACP) catalyzes the hydrolysis of the ascorbic acid 2-phosphate (AAP) substrate to produce ascorbic acid (AA). AAwas found to fade the coloration process of the MoO3 NP-mediated ABTS oxidation. By combining the oxidase-mimicking property of the MoO3 NPs and the ACP-catalyzed hydrolysis ofAAP, a novel and simple colorimetric method for detecting ACP was established |
Acid phosphatase (ACP) |
Color |
0.09-7.3 |
U/L |
0.011 |
U/L |
92-107.6% |
|
| 5083 |
174 |
IrRu-GOx@PEG NPs |
Iridium/ruthenium nanozyme reactors with cascade catalytic ability for synergistic oxidation therapy and starvation therapy in the treatment of breast cancer |
|
|
|
|
|
|
|
|
| 5084 |
175 |
Fe3O4/CoFe-LDH |
A sensitively and selectively visual sensor for the determination of ascorbic acid (AA) was successfully constructed based on the reduction effect of AA with enediol group on the formed oxidation of TMB |
Ascorbic acid (AA) |
Color |
0.5-10 |
μM |
0.2 |
μM |
98.3%-101.3% |
|
| 5086 |
178 |
Au 1 Pd 5 |
A colorimetric test is developed for quantitative determination of acid phosphatase. |
Acid phosphatase (ACP) |
Color |
1-14 |
U/L |
0.53 |
U/L |
102% 103% 99% |
To validate the application of this method in human serum, spiked-recovery experiments were carried out with different concentration of ACP. To fit the linear range of the established calibration plot, commercial human serum was appropriately diluted before addition of ACP. The recovery rates are 102 % for 4 U/L, 103 % for 8 U/L and 99 % for 12 U/L ACP (listed in Table 1). The good recovery results guarantee the reliability of this method for estimating ACP activity in biological fluid. |
| 5085 |
178 |
Au 1 Pd 5 |
A colorimetric test is developed for quantitative determination of acid phosphatase. |
Acid phosphatase (ACP) |
Color |
1-14 |
U/L |
0.53 |
U/L |
102% 103% 99% |
|
| 5088 |
179 |
Pt@PMOF (Fe) |
afford ORR in PBS |
|
|
|
|
|
|
|
|
| 5090 |
179 |
Pt@PMOF (Fe) |
H2O2 sensor without adding redox mediators |
|
|
|
|
|
|
|
When applied in electrocatalysis, due to the synergy between PMOF(Fe) and Pt NPs, the Pt@PMOF(Fe) modified electrode offers high activities toward to the reduction of H2O2, which could be used for H2O2 sensor without adding redox mediators. |
| 5087 |
179 |
Pt@PMOF (Fe) |
H2O2 sensor without adding redox mediators |
|
|
|
|
|
|
|
|
| 5089 |
179 |
Pt@PMOF (Fe) |
afford ORR in PBS |
|
|
|
|
|
|
|
Furthermore, the Pt NPs with porphyrin in PMOF(Fe) could afford ORR in PBS, which has the potential for fuel cells and biofuel cells, especially in cancer diagnosis. |
| 5096 |
181 |
hemin@CD |
a colorimetric and fluorescent dual-channel sensor for H2O2, glucose and xanthine was developed, and the results are satisfied in the application of real samples |
H2O2 |
Color |
0.17–133 |
μM |
0.11 |
μM |
|
|
| 5093 |
181 |
hemin@CD |
a colorimetric and fluorescent dual-channel sensor for H2O2, glucose and xanthine was developed, and the results are satisfied in the application of real samples |
xanthine |
Color |
0.17–33 |
μM |
0.15 |
μM |
93.4-102.4% |
|
| 5094 |
181 |
hemin@CD |
a colorimetric and fluorescent dual-channel sensor for H2O2, glucose and xanthine was developed, and the results are satisfied in the application of real samples |
H2O2 |
Fluor |
0.17–133 |
μM |
0.15 |
μM |
|
|
| 5095 |
181 |
hemin@CD |
a colorimetric and fluorescent dual-channel sensor for H2O2, glucose and xanthine was developed, and the results are satisfied in the application of real samples |
glucose |
Color |
0.17–133 |
μM |
0.15 |
μM |
92.2%～105.6% |
|
| 5091 |
181 |
hemin@CD |
a colorimetric and fluorescent dual-channel sensor for H2O2, glucose and xanthine was developed, and the results are satisfied in the application of real samples |
glucose |
Fluor |
0.17–133 |
μM |
0.15 |
μM |
92.2%～105.6% |
|
| 5092 |
181 |
hemin@CD |
a colorimetric and fluorescent dual-channel sensor for H2O2, glucose and xanthine was developed, and the results are satisfied in the application of real samples |
xanthine |
Fluor |
0.17–33 |
μM |
0.12 |
μM |
98.8-103.6% |
|
| 5097 |
182 |
T-BiO2–x NSs |
overcome the hypoxia-induced radioresistance as well as increase the efficacy of RT |
|
|
|
|
|
|
|
|
| 5098 |
183 |
GCE/MWCNTs-Av/RuNPs |
highly sensitive quantification of H2O2. |
H2O2 |
E-chem |
0.5—1750 |
μM |
65 |
Nm |
|
|
| 5099 |
183 |
GCE/MWCNTs-Av/RuNPs/biot-Gox |
a highly sensitive pseudo-bienzymatic glucose biosensor. |
glucose |
E-chem |
20—1230 |
μM |
3.3 |
μM |
|
|
| 5100 |
184 |
DNA/GO–PtNPs |
detection of nucleic acids |
MicroRNA |
Color |
0.05-10 |
nM |
21.7 |
pM |
|
|
| 5101 |
184 |
DNA/GO–PtNPs |
detection of nucleic acids |
KRAS Gene |
Color |
0.025-5 |
nM |
14.6 |
pM |
|
|
| 5102 |
186 |
mGPB |
a multi-enzyme system (mGPB) with self-sufficient H2O2 supply and photoselective multienzyme-like activities was developed for enhanced tumor catalytic therapy |
|
|
|
|
|
|
|
|
| 5103 |
189 |
CC-PdNPs |
detection of iodine ions |
iodine ions |
Color |
0-6.25 |
Nm |
0.19 |
nM |
95.52-102.8% |
|
| 5104 |
190 |
MNET |
remodel the microenvironment of a stroke by self-adapted oxygen regulating and free radical scavenging |
|
|
|
|
|
|
|
|
| 5105 |
193 |
Cu-hNFs |
antibacterial |
|
|
|
|
|
|
|
|
| 5106 |
194 |
aptamer-AuNPs |
determination of CRP in blood |
C-reactive protein (CRP) |
Color |
0.1-200 |
ng/mL |
8 |
pg/mL |
94.54%–98.03% |
|
| 5108 |
198 |
TPyP-CuS |
ascorbic acid (AA) |
Ascorbic acid (AA) |
Color |
1-30 |
μM |
0.419 |
μM |
|
|
| 5107 |
198 |
TPyP-CuS |
detect H2O2 |
H2O2 |
Color |
1.0-8.0 |
mM |
121.8 |
μM |
|
|
| 5109 |
199 |
M/H-D |
Enhanced Tumor Penetration and Radiotherapy Sensitization |
|
|
|
|
|
|
|
|
| 5110 |
200 |
GeO2 |
Colorimetric Assay of OPs |
paraoxon |
Color |
0.1-50 |
pM |
14 |
fM |
|
Typically, 100 µL of different concentrations of paraoxon (0, 0.1, 2, 5, 10, 15, 30, 50, 70, 100 pm) were mixed with 20 µL of PB solutions (0.1 m, pH 8.0) containing AChE (10 µg mL−1). After the incubation for 20 min at 37 °C, 20 µL of ATCh solution (10 mm) and 20 µL of GeO2 nanozymes solution (1 mg mL−1) were added into the above mixture respectively for another 20 min incubation. The residual GeO2 nanozymes was collected by centrifugation, and added into 200 µL of acetate buffer (pH 4.0, 0.1 m) containing TMB (0.6 mm) and H2O2 (1.2 mm). Finally, the absorbance of the above reaction was measured after 30 min. Each experiment was repeated three times. The LOD was calculated by the equation LOD = (3σ/s), where σ is the standard deviation of blank signals and s is the slope of the calibration curve. |
| 5111 |
200 |
GeO2 |
Colorimetric Assay of OPs |
paraoxon |
Color |
0.1-50 |
pM |
14 |
fM |
|
|
| 5112 |
201 |
honeycomb MnO2 |
enhancing photodynamic therapy and MRI effect: An intelligent nanoplatform to conquer tumor hypoxia for enhanced phototherapy |
|
|
|
|
|
|
|
|
| 5113 |
202 |
2.6Pt/EMT |
Detection of H2O2 and glucose |
glucose |
Color |
0.09-0.27 |
mM |
13.2 |
μM |
|
|
| 5114 |
202 |
2.6Pt/EMT |
Detection of H2O2 and glucose |
H2O2 |
Color |
2.9-29.4 |
μM |
1.1 |
μM |
|
|
| 5116 |
203 |
paper-based sensor |
MiRNA Detection. |
miRNA-141 |
E-chem |
0.002-170 |
pM |
0.6 |
fM |
97.0–110.0% |
the recoveries and RSD were in the range of 97.0–110.0 and 1.31–13.64%, suggesting a gratifying analysis capability of the proposed sensor for miRNA-141 in complex clinical samples. |
| 5115 |
203 |
paper-based sensor |
MiRNA Detection. |
miRNA-141 |
E-chem |
0.002-170 |
pM |
0.6 |
fM |
97.0–110.0% |
|
| 5118 |
205 |
Rosette-GCN |
glucose was reliably determined |
glucose |
Color |
5.0-275.0 |
μM |
1.2 |
μM |
99.3–104.1% |
|
| 5117 |
205 |
Rosette-GCN |
glucose was reliably determined |
glucose |
Color |
5.0-275.0 |
μM |
1.2 |
μM |
99.3–104.1% |
These results prove that rosette-GCN-based systems may serve as potent analytical platforms for the diagnosis of high glucose levels in clinical settings. |
| 5120 |
206 |
Au-nanozyme |
selective and sensitive detection of mercury(II) |
Hg2+ |
Color |
0.14–7.35 |
mg L−1 |
20 |
µg L−1 |
|
|
| 5119 |
206 |
Au-nanozyme |
selective and sensitive detection of mercury(II) |
Hg2+ |
Color |
0.14–7.35 |
mg L−1 |
20 |
µg L−1 |
|
The method is appropriate for the analysis of Hg2+ in water samples. |
| 5122 |
209 |
BSA-RuO2NPs |
monitoring in situ H2O2 secretion from living MCF-7 cells. |
H2O2 |
Color |
2-800 |
μM |
1.8 |
μM |
|
|
| 5121 |
209 |
BSA-RuO2NPs |
monitoring in situ H2O2 secretion from living MCF-7 cells. |
H2O2 |
E-chem |
0.4-3850 |
μM |
0.18 |
μM |
|
|
| 5123 |
212 |
MoOx QDs |
efficient colorimetric quantitative detection of H2O2 based on microfluidic paper-based device. |
H2O2 |
Color |
1-20 |
μM |
0.175 |
μM |
91.5–107.04 % |
this biosensing device was successfully applied for visual detection of H2O2 released from PC12 cells with the advantages of low cost, rapid response and portability |
| 5124 |
212 |
MoOx QDs |
efficient colorimetric quantitative detection of H2O2 based on microfluidic paper-based device. |
H2O2 |
Color |
1-20 |
μM |
0.175 |
μM |
91.5–107.04 % |
|
| 5126 |
213 |
2D Cu-TCPP(Fe) |
sulfonamide detection |
SAs |
E-chem |
1.186-28.051 |
ng/mL |
0.395 |
ng/mL |
64–118% |
The accuracy and precision of the established sensor were estimated using a spike-recovery measurement based on water samples from various sources (pure water, pond water, tap water, river water) fortified with a variety of concentrations of SMM. |
| 5125 |
213 |
2D Cu-TCPP(Fe) |
sulfonamide detection |
SAs |
E-chem |
1.186-28.051 |
ng/mL |
0.395 |
ng/mL |
64–118% |
|
| 5127 |
214 |
PTCA-ZnFe2O4 |
detection of ascorbic acid (AA) |
AA |
Color |
1-10 |
μM |
0.834 |
μM |
|
|
| 5128 |
215 |
hydrogel |
combating bacteria and accelerating wound healing |
|
|
|
|
|
|
|
|
| 5129 |
217 |
IrO2/GO |
detection of AA |
Ascorbic acid (AA) |
Color |
5-70 |
Nm |
324 |
nM |
|
The corresponding absorbance exhibited good linearity to the concentration of AA in the range of 5–70 μM with a coefficient of determination (R2) equal to 0.9931 |
| 5130 |
217 |
IrO2/GO |
detection of AA |
Ascorbic acid (AA) |
Color |
5-70 |
Nm |
324 |
nM |
|
|
| 5131 |
220 |
MoS2@CGTC NCR |
MoS2@CGTC NCR achieves glucose-responsive TME self-modulation for enhanced cascaded chemo-catalytic therapy of tumors. |
|
|
|
|
|
|
|
MoS2@CGTC NCR achieves glucose-responsive TME self-modulation for enhanced cascaded chemo-catalytic therapy of tumors. |
| 5132 |
220 |
MoS2@CGTC NCR |
MoS2@CGTC NCR achieves glucose-responsive TME self-modulation for enhanced cascaded chemo-catalytic therapy of tumors. |
|
|
|
|
|
|
|
|
| 5133 |
221 |
VB2-IONzymes |
mouth ulcer healing |
|
|
|
|
|
|
|
|
| 5134 |
222 |
Hg2+/heparin–OsNPs |
detection of heparinase in human serum samples |
heparinase |
Color |
20-1000 |
μg L-1 |
15 |
μg L-1 |
|
|
| 5135 |
223 |
laccase@MMOFs |
industrial dye degradation |
|
|
|
|
|
|
|
|
| 5136 |
224 |
oxidized UiO-66(Ce/Zr) |
sensitive determination of Pi |
phosphate ion |
Color |
20-666.7 |
μM |
6.7 |
μM |
|
|
| 5137 |
224 |
oxidized UiO-66(Ce/Zr) |
sensitive determination of Pi |
phosphate ion |
Color |
20-666.7 |
μM |
6.7 |
μM |
|
ABTS channel colorimetric |
| 5138 |
224 |
oxidized UiO-66(Ce/Zr) |
sensitive determination of Pi |
phosphate ion |
Color |
3.3-666.7 |
μM |
1.1 |
μM |
|
Dual-channel ratiometric colorimetric |
| 5139 |
226 |
Pt NPs |
sensitive and rapid detection of carcinoembryonic antigen (CEA), pressure-based point-of-care (POC) testing strategy |
carcinoembryonic antigen (CEA) |
Unsure |
0.2-60 |
ng/mL |
0.13 |
ng/mL |
|
|
| 5140 |
227 |
Fe SSN |
detection of glucose through a multienzyme biocatalytic cascade platform |
glucose |
Color |
10-100 |
mM |
8.2 |
μM |
|
|
| 5141 |
229 |
lipase immobilized on Fe3O4/SiO2/Gr NC |
|
|
|
|
|
|
|
|
This material can not belong to nanozyme. It is synthesized by immobolize the natural lipase on the nanomaterials framework. |
| 5142 |
230 |
HP-HIONs@PDA-PEG |
tumor therapy via modulating reactive oxygen species and heat shock proteins |
|
|
|
|
|
|
|
|
| 5143 |
231 |
HKUST-1 |
Synergic Cancer Therapy |
|
|
|
|
|
|
|
|
| 5144 |
232 |
AuPtRu |
biothiol detection |
Biothiol |
|
|
|
|
|
|
|
| 5145 |
234 |
CdCo2O4 |
colorimetric detection of glucose |
glucose |
Color |
0.5-100 |
μM |
0.13 |
μM |
|
|
| 5146 |
235 |
GOx&PVI-Hemin@ZIF-8 |
enhanced cascade catalysis to detect glucose |
glucose |
Color |
0-200 |
μM |
0.4 |
μM |
|
|
| 5147 |
257 |
TiO2/C-QDs |
GSH detection |
GSH |
Color |
0.5-25 |
μM |
0.2 |
μM |
|
|
| 5148 |
257 |
TiO2/C-QDs |
GSH detection |
GSH |
Color |
0.5-25 |
μM |
0.2 |
μM |
|
taking human serum as an example, the possibility of applying GSH colorimetry to actual biological samples wasexamined by standard addition methods. |
| 5149 |
258 |
RBIR |
for single-wavelength laser activated photothermal-photodynamic synergistic treatment against hypoxic tumors |
|
|
|
|
|
|
|
|
| 5150 |
259 |
Pd4 Pd6 |
ROS scavenging effects of PdNPs in a cellular model of oxidative stress-related disease |
|
|
|
|
|
|
|
|
| 5151 |
260 |
GSH@PtNPs |
Cu2+ detection |
Cu2+ |
Color |
50-800 |
nM |
7 |
nM |
|
Cu2+ ions in real human serum samples were detected |
| 5152 |
260 |
GSH@PtNPs |
Cu2+ detection |
Cu2+ |
Color |
25-300 |
nM |
6.8 |
nM |
|
|
| 5153 |
261 |
Co–Fe@hemin |
Nanozyme chemiluminescence paper test for rapid and sensitive detection of SARS-CoV-2 antigen |
|
CL |
0.2-100 |
ng/mL |
0.1 |
ng/mL |
|
|
| 5154 |
264 |
CeO2 microspheres |
colorimetric determination of phos-phoprotein concentration |
β-casein |
Color |
0-600 |
μg/mL |
|
|
|
|
| 5156 |
266 |
FeBNC |
AChE activity and its inhibitor organophosphorus pesticides(OPs) detection |
paraoxon-ethyl |
Color |
8-1000 |
ng/mL |
2.19 |
ng/mL |
|
|
| 5155 |
266 |
FeBNC |
AChE activity and its inhibitor organophosphorus pesticides(OPs) detection |
acetylcholinesterase (AChE) |
Color |
0.8-80 |
mU/mL |
0.8 |
mU/mL |
|
|
| 5157 |
267 |
CeNZs |
drug-induced liver injury therapy |
|
|
|
|
|
|
|
|
| 5158 |
268 |
Fe3O4@Au MBs |
aptasensor for detection of aflatoxin B1 |
Aflatoxin B1 |
Color |
5-200 |
ng/mL |
35 |
pg/mL |
|
|
| 5159 |
269 |
CMS NPs |
in vitro and in vivo treatment of MDR Bacterial Infections |
|
|
|
|
|
|
|
|
| 5160 |
270 |
CexZr1-xO2 |
photometric determination of phosphate ion |
phosphate ion |
Color |
0.33-266.7 |
μM |
0.09 |
μM |
|
|
| 5161 |
271 |
Co3O4 nanoflowers |
detection of acid phosphatase |
Acid phosphatase (ACP) |
Color |
0.1-25 |
U/L |
0.062 |
U/L |
|
it is capable of detecting ACP in serum samples |
| 5162 |
271 |
Co3O4 nanoflowers |
detection of acid phosphatase |
Acid phosphatase (ACP) |
Color |
0.1-25 |
U/L |
0.062 |
U/L |
|
|
| 5163 |
272 |
ICG-PtMGs@HGd |
Persistent Regulation of Tumor Hypoxia Microenvironment via a Bioinspired Pt-Based Oxygen Nanogenerator for Multimodal Imaging-Guided Synergistic Phototherapy |
|
|
|
|
|
|
|
|
| 5164 |
273 |
PtGs |
Synergistic oxygen-inductive starvation/electrodynamic tumor therapy |
|
|
|
|
|
|
|
|
| 5165 |
274 |
Prussian Blue |
H2O2 sensor |
|
|
|
|
|
|
|
|
| 5166 |
275 |
GO-CTAB-AuNP-hemin nanozymes |
Colorimetric apta-biosensing of amphetamin and methamphetamin |
methamphetamin |
|
0.5–100 |
μM |
154 |
nM |
|
|
| 5167 |
275 |
GO-CTAB-AuNP-hemin nanozymes |
Colorimetric apta-biosensing of amphetamin and methamphetamin |
methamphetamin |
|
0.5–100 |
μM |
154 |
nM |
|
MAMP detection in mixed drug samples was investigated |
| 5168 |
275 |
GO-CTAB-AuNP-hemin nanozymes |
Quantitative detection of amphetamin and methamphetamin |
amphetamin |
|
0.5–100 |
μM |
185 |
nM |
|
detection and quantitation of AMP in a seized drug sample were performed |
| 5169 |
275 |
GO-CTAB-AuNP-hemin nanozymes |
Quantitative detection of amphetamin and methamphetamin |
amphetamin |
|
0.5–100 |
μM |
185 |
nM |
|
|
| 5170 |
276 |
HRP@MOFs composite |
biomacromolecule embedding with excellent bioactivity |
|
|
|
|
|
|
|
|
| 5171 |
277 |
HIONCs-GOD |
synergistic chemodynamic−hyperthermia therapy |
H2O2 |
|
|
|
|
|
|
|
| 5172 |
278 |
AuNP |
study under non-equilibrium conditions |
|
|
|
|
|
|
|
|
| 5173 |
280 |
MoS2 NSs |
biosensing |
|
|
|
|
|
|
|
|
| 5174 |
281 |
MIL@GOx-MIL NRs |
anti-bacteria |
|
|
|
|
|
|
|
|
| 5175 |
282 |
Fe-SAs/NC |
biosensing |
acetylcholinesterase (AChE) |
fluorescence |
2-70 |
U/L |
0.56 |
U/L |
|
|
| 5176 |
284 |
LCDs |
biocatalysis |
|
|
|
|
|
|
|
|
| 5177 |
285 |
Fe3O4 |
anticancer |
|
|
|
|
|
|
|
|
| 5178 |
287 |
BM-20 nanosheets |
H2O2 detection |
H2O2 |
Color |
1-1000 |
μM |
0.4 |
μM |
|
|
| 5179 |
288 |
MGCN-chitin-AcOH |
glucose detection |
glucose |
Color |
5-1000 |
μM |
0.055 |
μM |
|
|
| 5180 |
289 |
WS2 |
Pb detection |
Pb |
Color |
5-80 |
μg/L |
4 |
μg/L |
|
|
| 5181 |
291 |
CuCo2O4 nanorods |
ascorbic acid detection |
Ascorbic acid (AA) |
Color |
0-50 |
μM |
1.94 |
μM |
|
|
| 5182 |
292 |
RuTeNRs |
cancer treatment |
|
|
|
|
|
|
|
|
| 5183 |
293 |
FeNZ |
water treatment |
|
|
|
|
|
|
|
|
| 5184 |
294 |
Hf18 |
proteases mimic |
|
|
|
|
|
|
|
|
| 5185 |
295 |
GO/Au |
diagnosis |
PBP2a |
Color |
20-300 |
nM |
|
|
|
|
| 5186 |
296 |
GO-CeM (ex-situ) |
Sulfide (S2-) ion detection |
S2- |
Color |
20-200 |
μM |
11.70 |
μM |
|
|
| 5187 |
296 |
GO-CeM (ex-situ) |
Tin (Sn2+) ion detection |
Sn2+ |
Color |
10-80 |
μM |
5.58 |
μM |
|
|
| 5188 |
298 |
Cu‐ATP, Cu‐ADP, Cu‐AMP |
a chemical sensor array based on nanozymes was developed to discriminate between different metal ions and teas |
12 metal ions including Sn2+, Fe3+, Cu2+, Ag+, Pb2+, Mg2+, Mn2+, Ca2+, Al3+, Cr2+, Ni+, Ba2+ |
Color |
|
|
0.01 |
μM |
|
|
| 5189 |
300 |
A-III and B-IV |
A-III and B-IV coatings clearly restricted and promoted the spreading of adherent RAW264.7 macrophages, respectively. |
|
|
|
|
|
|
|
|
| 5191 |
301 |
His-GQD/hemin |
detecting blood glucose |
glucose |
Color |
2.5-200 |
μM |
|
|
|
|
| 5190 |
301 |
His-GQD/hemin |
detecting H2O2 |
H2O2 |
Color |
5-240 |
μM |
|
|
|
|
| 5193 |
302 |
MoS2-MIL-101(Fe) |
detecting glucose |
glucose |
Color |
0.01-15 |
μM |
0.01 |
μM |
|
|
| 5192 |
302 |
MoS2-MIL-101(Fe) |
On the basis, a sensitive method for H2O2 detection was proposed with a linear range of 0.01−20 μmol/L and a detection limit of 10 nmol/L. Considering H2O2 as product in the reaction of glucose catalyzed by glucose oxidase, a sensitive and selective method for glucose detection was proposed. The method can be used in blood glucose detection with good accuracy. |
H2O2 |
Color |
0.01−20 |
μM |
10 |
nM |
|
|
| 5195 |
303 |
Quercetin@ZIF-90 (QZ) |
a novel “Off-On” colorimetric method for ATP sensing was established |
ATP |
Color |
2-80 |
μM |
|
|
|
MNs-QZ |
| 5194 |
303 |
Quercetin@ZIF-90 (QZ) |
a novel “Off-On” colorimetric method for ATP sensing was established |
ATP |
Color |
2-80 |
μM |
|
|
|
|
| 5196 |
304 |
Mn3O4 NPs |
detection of heavy metals |
Hg(II) |
Color |
10-200 |
μg/L |
3.8 |
μg/L |
|
|
| 5197 |
304 |
Mn3O4 NPs |
detection of heavy metals |
Cd(II) |
Color |
5-100 |
μg/L |
2.4 |
μg/L |
|
|
| 5198 |
305 |
Cu-NC |
sensing of AA |
AA |
Color |
5-15 |
μM |
5.4 |
μM |
|
|
| 5199 |
309 |
GDYO |
Detection of H2O2 and Glucose |
H2O2 |
Color |
|
|
|
|
|
|
| 5200 |
309 |
GDYO |
Detection of H2O2 and Glucose |
Glucose |
Color |
|
|
|
|
|
|
| 5201 |
310 |
AuBP@Pt and AuPd-PDA |
Detection of APOE4 |
APOE4 |
E-chem |
0.05-2000 |
ng mL -1 |
15.4 |
pg mL -1 |
|
In conclusion, an ultrasensitive electrochemical immunosensor based on AuBP@Pt nanostructures and AuPd-PDA nanozyme was developed for the detection of APOE4. |
| 5202 |
310 |
AuBP@Pt and AuPd-PDA |
Detection of APOE4 |
APOE4 |
E-chem |
0.05-2000 |
ng mL -1 |
15.4 |
pg mL -1 |
|
|
| 5203 |
311 |
organic nanozymes |
prevent oxidative damage for TBI therapy to reduce the ROS level in damaged brain tissues |
|
|
|
|
|
|
|
|
| 5204 |
312 |
PtRu NPs |
detection of Fe2+ and protection of Monascus pigments |
Fe2+ |
Color |
0.2-6.0 |
mM |
0.05 |
μM |
|
|
| 5205 |
313 |
Fe-Loaded MOF-545(Fe) |
Dye Degradation Dyes and the Removal of Dyes from Wastewater |
|
Color |
|
|
|
|
|
|
| 5206 |
314 |
Fe-MOF |
PSA detection |
PSA |
Color |
0-60 |
μM |
0.051 |
μM |
|
|
| 5207 |
316 |
Fe-MIL-88B |
we constructed an indirect competitive MOFLISA for high throughput determination of AFB1 in grain drinks |
AFB1 |
Color |
0.01 to 20 |
ng·mL−1. |
0.009 |
ng·mL−1 |
87–98% （Nestle peanut milk） 86–99%（Silk soy milk) |
|
| 5208 |
317 |
2D MnO2 nanoflakes |
detect microRNA |
Let-7a |
E-chem |
0.4 to 100 |
nM |
250 |
pM |
105.4%, 96.3%, and 102.1% |
|
| 5209 |
318 |
Fe3O4@TAn nanoflowers (NFs) |
In vitro experiments verify that the Fe3O4@TAn NFs demon |
multiple reactive oxygen and nitrogen species |
|
|
|
|
|
|
|
| 5210 |
320 |
Au-BNNs and Ag-BNNs nanohybrids |
|
Our results present new elements regarding BNNs-based nanohybrids which may help expand their applications in various fields such as catalyst, antimicrobial, biomedical, biosensor, and fillers in polymer matrix. |
|
|
|
|
|
|
|
| 5211 |
321 |
PdNPs/GDY |
Our findings demonstrate that the rational design of a nano |
|
|
|
|
|
|
|
|
| 5212 |
322 |
PDI-CeCoO3 |
Based on this, a colorimetric assay for GSH biosensing has been developed. |
GSH |
Color |
1-10 |
M |
0.658 |
μM |
|
|
| 5213 |
323 |
MnFe2O4/g-C3N4 |
|
H2O2 |
Color |
50-100000 |
nM |
20.5 |
nM |
|
|
| 5214 |
323 |
MnFe2O4/g-C3N4 |
An extremely sensitive colorimetric glucose sensor was fabricated using a novel hybrid nanostructure comprised of manganese ferrite oxide– graphitic carbon nitride (MnFe2O4/g-C3N4). |
Glucose |
Color |
100nM-0.1mM/0.1mM-10mM |
|
17.3nM/1.13μM |
|
90.0-105.9% |
|
| 5216 |
324 |
Cu NCs |
detection of GSH |
GSH |
Color |
1-150 |
μM |
0.89 |
μM |
|
|
| 5215 |
324 |
Cu NCs |
detection of AA |
DFQ |
Fluor |
0.5-30 |
μM |
0.144 |
μM |
|
|
| 5217 |
324 |
Cu NCs |
detection of H2O2 |
H2O2 |
Color |
0.01-1 |
mM |
5.6 |
μM |
|
|
| 5218 |
325 |
CoOOH NFs |
Cobalt oxyhydroxide nanoflakes (CoOOH NFs), a typical two-dimensional (2D) nanomaterials, were found to induce chemiluminescence (CL) of luminol since the oxidase-like activity of CoOOH NFs enables the dissolved oxygen to generate various radicals (%OH, O2%−and 1O2) even if without the addition of oxidants such as hy |
GSH |
Color |
10-1000 |
nM |
6.4 |
nM |
|
|
| 5219 |
326 |
SiO2@MPGs |
Imaging |
|
|
|
|
|
|
|
|
| 5220 |
327 |
Co4S3/Co3O4 nanotubes |
Antibacteria |
|
|
|
|
|
|
|
|
| 5221 |
328 |
Pc(OH)8/CoSn(OH)6 |
Detection of H2O2 and Cholesterol |
Cholesterol |
Color |
0.1-1.0 |
mM |
0.0109 |
mM |
|
|
| 5222 |
328 |
Pc(OH)8/CoSn(OH)6 |
Detection of H2O2 and Cholesterol |
H2O2 |
Color |
0.4-0.8 |
mM |
0.0914 |
mM |
|
|
| 5223 |
329 |
Mn3O4-PEG@C&A |
Cancer Therapy |
|
|
|
|
|
|
|
|
| 5225 |
331 |
Fe-MOFs |
Detection of H2O2 and Glucose |
glucose |
Color |
0-50 |
μM |
0.6 |
μM |
|
|
| 5224 |
331 |
Fe-MOFs |
Detection of H2O2 and Glucose |
H2O2 |
Color |
0-100 |
μM |
1.2 |
μM |
|
|
| 5226 |
333 |
Fe3O4@Au@MIL-100(Fe) |
Dye degradation |
|
|
|
|
|
|
|
|
| 5230 |
334 |
Au/MOFs(Fe, Mn)/CNTs |
Detection of H2O2, glucose and sulfadimethoxine |
sulfadimethoxine |
Color |
0.54-41.58 |
μg/L |
0.35 |
μg/L |
|
doutable |
| 5229 |
334 |
Au/MOFs(Fe, Mn)/CNTs |
Detection of H2O2, glucose and sulfadimethoxine |
H2O2 |
Color |
0.34-53.05 |
nM |
0.18 |
nM |
|
|
| 5231 |
334 |
Au/MOFs(Fe, Mn)/CNTs |
Detection of H2O2, glucose and sulfadimethoxine |
sulfadimethoxine |
Color |
0.54-41.58 |
μg/L |
0.35 |
μg/L |
|
|
| 5227 |
334 |
Au/MOFs(Fe, Mn)/CNTs |
Detection of H2O2, glucose and sulfadimethoxine |
glucose |
Color |
0.005-0.3 |
μM |
0.002 |
μM |
|
doutable |
| 5228 |
334 |
Au/MOFs(Fe, Mn)/CNTs |
Detection of H2O2, glucose and sulfadimethoxine |
H2O2 |
Color |
0.34-53.05 |
nM |
0.18 |
nM |
|
doutable |
| 5232 |
334 |
Au/MOFs(Fe, Mn)/CNTs |
Detection of H2O2, glucose and sulfadimethoxine |
glucose |
Color |
0.005-0.3 |
μM |
0.002 |
μM |
|
|
| 5233 |
335 |
nanoceria |
Detection of Al3+ |
Al3+ |
CL |
30-3500 |
nM |
10 |
nM |
|
|
| 5236 |
336 |
OEG-AuNPs |
Detection of Hg2+ |
Hg2+ in bottled water |
|
10-40 |
ppb |
2 |
ppb |
|
|
| 5234 |
336 |
OEG-AuNPs |
Detection of Hg2+ |
Hg2+ in saline solution |
|
20-120 |
ppb |
13 |
ppb |
|
|
| 5235 |
336 |
OEG-AuNPs |
Detection of Hg2+ |
Hg2+ in seawater |
|
20-100 |
ppb |
10 |
ppb |
|
|
| 5237 |
336 |
OEG-AuNPs |
Detection of Hg2+ |
Hg2+ in Tap water |
|
10-40 |
ppb |
2 |
ppb |
|
|
| 5238 |
336 |
OEG-AuNPs |
Detection of Hg2+ |
Hg2+ in dH2O |
Color |
10-60 |
ppb |
0.9 |
ppb |
|
|
| 5239 |
337 |
N-QG |
Detection of H2O2 in milk |
H2O2 |
Color |
2-1500 |
μM |
0.75 |
μM |
|
|
| 5240 |
337 |
N-QG |
Detection of H2O2 |
H2O2 |
Color |
1-2000 |
μM |
0.38 |
μM |
|
|
| 5241 |
338 |
Pt@Au |
Detection of Zika virus |
Zika virus |
Color |
1-1000 |
pg/mL |
|
|
|
|
| 5244 |
339 |
AuNSs@CTAB |
human chorionic gonadotropin detection |
human chorionic gonadotropin |
Color |
7.8-10000 |
mIU/mL |
7.8 |
mIU/mL |
|
|
| 5242 |
339 |
AuNRs@CTAB |
human chorionic gonadotropin detection |
human chorionic gonadotropin |
Color |
|
mIU/mL |
15.6 |
mIU/mL |
|
|
| 5243 |
339 |
AuNCs@CTAB |
human chorionic gonadotropin detection |
human chorionic gonadotropin |
Color |
|
mIU/mL |
31.2 |
mIU/mL |
|
|
| 5245 |
340 |
AuNPs |
Escherichia coli detection |
Escherichia coli |
Color |
10-10E9 |
CFU/mL |
10 |
CFU/mL |
|
|
| 5246 |
341 |
Ce:MoS2 |
analyses |
H2O2 |
Color |
1-50 |
μM |
0.47 |
μM |
|
|
| 5247 |
342 |
HMPWCs |
relieving oxidative stress, inhibiting Tau neuropathology, and counteracting neuroinflammation, which could be used to treat Tau-related AD-like neurodegeneration. |
|
|
|
|
|
|
|
|
| 5248 |
343 |
rGO/PEI/Au nanohybrids |
addition of a trace amount of Cr6+, rGO/PEI/Au nanohybrids can effectively catalyze TMB–H2O2 in ultrapure water; thus, a visual chemosensor and electronic spectrum quantitative analysis method for Cr6+ based on chromium-stimulated peroxidase mimetic activity of rGO/PEI/Au nanohybrids were established |
H2O2 |
Color |
|
|
|
|
|
|
| 5249 |
344 |
Fe/N-HCN |
our study provided evidence that the prominent multienzyme activities of Fe/N-HCNs could be used as an anti-inflammatory alternative for both infectious and noninfectious inflammation. |
|
|
|
|
|
|
|
|
| 5250 |
345 |
MIL-100 (Fe) |
The aptasensor showed a wide linear range of 1.0 × 10−10 g L−1 to 3.0 × 10−5 g L−1 and a low detection limit of 7.7 × 10−11 g L−1. The aptasensor also showed excellent selectivity and sensitivity. The novel sensing platform could provide a potential alternative method for AFP detection in simple samples. |
|
CL |
1E-10-3E−5 |
g/L |
7.7 × 10−11 |
g/L |
|
|
| 5251 |
346 |
Zr-MOFs |
new angle for the design of future MOF catalysts |
|
|
|
|
|
|
|
|
| 5252 |
348 |
CMC |
The anti-tumor mechanism of this system includes two aspects: (i) the generated oxygen can improve the hypoxic state of the tumor microenvironment and enhance the radiotherapy sensitivity and (ii) CPT can induce cell cycle arrest in the S-phase at a low dose, which further increases the radio-sensitivity of tumor cells and augmented radiation-induced tumor damage. |
|
|
|
|
|
|
|
|
| 5253 |
349 |
IONzymes/ISNzymes |
reduces the bacteria number |
|
|
|
|
|
|
|
|
| 5254 |
350 |
AuNP@Fe-TCPP-MOF |
highly sensitive and selective detection of Hg2+ ions |
|
|
|
|
|
|
|
|
| 5255 |
351 |
OCN |
improved peroxidase-like activity |
|
|
|
|
|
|
|
|
| 5256 |
353 |
Au@Pt-nanoparticles |
on-site and quantitative detection of Escherichia coli O157:H7 |
|
|
|
|
|
|
|
|
| 5258 |
356 |
MoS2/rGO VHS |
excellent antibacterial effect in situ |
|
|
|
|
|
|
|
|
| 5257 |
356 |
MoS2/rGO VHS |
excellent antibacterial effect in situ |
|
|
|
|
|
|
|
not only develops a new protocol to construct efficient nanozymes with capturing ability, as alternative antibiotics, but also provides new insight into the smart biomaterials design by defecting chemistry, integrating nanotopology, and catalytic performance |
| 5259 |
357 |
PtNFs |
the quantitative detection of DHEA in human urine |
DHEA |
Color |
2.1- 118.1 |
ng mL−1 |
1.3 |
ng mL−1 |
|
The IC50 value is 15.7 ng mL−1, LOD is 1.3 ng mL−1, and the linear range is 2.1 ~ 118.1 ng mL−1, |
| 5260 |
357 |
PtNFs |
the quantitative detection of DHEA in human urine |
DHEA |
Color |
2.1- 118.1 |
ng mL−1 |
1.3 |
ng mL−1 |
|
|
| 5261 |
358 |
50Co/CuS-MMT |
detection of H2O2 residue in contact lens solution |
H2O2 |
Color |
10-100 |
μM |
2.2 |
μM |
|
|
| 5262 |
358 |
50Co/CuS-MMT |
detection of H2O2 residue in contact lens solution |
H2O2 |
Color |
10-100 |
μM |
2.2 |
μM |
|
Fig. 6B displays that the absorbance at 652 nm was linearly correlated with H2O2 concentration from 10 to 100 μM and the limit of detection (LOD) was calculated to be 2.2 μM (LOD = 3 s/k, where s, k are the relative standard deviation of eight parallel controlled measurements and the slope of the linear calibration plots, respectively. In this formula, s = 0.000157, k = 2.14 × 10−4, and therefore, LOD =2.2 μM). |
| 5263 |
361 |
CoO@AuPt |
initiate intracellular hemodynamic reactions in response to TME clues |
|
|
|
|
|
|
|
|
| 5264 |
362 |
Aptamer-gold nanozyme |
to develop an Aptamer-nanozyme lateral flow assay (ALFA) |
CA125 in human serum |
CL |
7.5-200 |
U/mL |
5.21 |
U/mL |
|
|
| 5266 |
363 |
SNC |
TAC biosensor |
AA |
SERS |
0.1-5 |
mM |
0.08 |
mM |
|
the absorbance value.Under the optimal condition, the absorbance of ox-TMB decreases with the increase in AA concentration (Figure 4c). |
| 5265 |
363 |
SNC |
TAC biosensor |
AA |
SERS |
0.1-5 |
mM |
0.08 |
mM |
|
|
| 5270 |
364 |
Fe, N-CDs |
the H2O2 and xanthine determination in human serum and the urine |
H2O2 |
Color |
0–100 |
μM |
0.047 |
μM |
|
The detection limits of H2O2 and xanthine were 0.047 μM and 0.02 μM for ratiometric fluorometric and 0.05 μM and 0.023 μM for colorimetric, respectively. |
| 5267 |
364 |
Fe, N-CDs |
the H2O3 and xanthine determination in human serum and the urine |
xanthine |
Color |
0-70 |
μM |
0.02 |
μM |
|
The detection limits of H2O2 and xanthine were 0.047 μM and 0.02 μM for ratiometric fluorometric and 0.05 μM and 0.024 μM for colorimetric, respectively. |
| 5268 |
364 |
Fe, N-CDs |
the H2O3 and xanthine determination in human serum and the urine |
xanthine |
Color |
0-70 |
μM |
0.02 |
μM |
|
|
| 5269 |
364 |
Fe, N-CDs |
the H2O2 and xanthine determination in human serum and the urine |
H2O2 |
Color |
0–100 |
μM |
0.047 |
μM |
|
|
| 5271 |
366 |
Pd−Ir core-shell nanoparticles |
This work not only demonstrates the size effect, but also provides an effective strategy to enhance the performance of nanozymes in certain applications. |
|
|
10- 2000 |
pg/mL |
8.2, 4.6, and 3.7 |
pg/mL |
|
|
| 5272 |
366 |
Pd−Ir core-shell nanoparticles |
This work not only demonstrates the size effect, but also provides an effective strategy to enhance the performance of nanozymes in certain applications. |
|
|
10- 2000 |
pg/mL |
8.2, 4.6, and 3.7 |
pg/mL |
|
the limit of detection (LOD, which was defined by the 3SD method33) for the ELISAs were lowered from 9.3, to 8.2, 4.6, and 3.7 pg/mL when the size of Pd−Ir NPs was reduced from 13.0 to 9.8, 5.9, and 3.3 nm, respectively. |
| 5273 |
367 |
FeS2 NSs |
Simultaneously, the FeS2 NSs were applied to rapidly detect H2O2 concentrations in actual samples, such as lens solution, beer and disinfectant (all bought from supermarkets). |
H2O2 |
Color |
0.02–4.00 |
μM |
0.00760 |
μM |
|
|
| 5274 |
370 |
Cu3V2O7(OH)2·2H2O |
detection of glutathione |
glutathione |
Color |
|
|
0.08 |
μM |
93-109% |
|
| 5275 |
371 |
Mn3O4@Au-dsDNA/DOX |
synergistic antitumor immunotherapy |
|
|
|
|
|
|
|
|
| 5277 |
372 |
Cu2（OH）3NO3 |
detect biothiols in human blood serum |
|
|
|
|
|
|
|
On the basis of the oxidase-like catalytic of Cu2(OH)3NO3 nanosheets, a simple, quick, sensitive, and selective colorimetric assay was developed to determine biothiols. More interestingly, this technique was successfully applied to detect biothiols in human blood serum, suggesting it has a hopeful prospect for diagnostic in the relevant application. |
| 5276 |
372 |
Cu2（OH）3NO3 |
detect biothiols in human blood serum |
|
|
|
|
|
|
|
|
| 5278 |
374 |
AL-PB-600 |
a promising agent in antioxidant therapies |
|
|
|
|
|
|
|
|
| 5280 |
375 |
ZnO |
NO-releasing biomaterials and devices |
NO |
E-chem |
|
|
1 × 10−9 |
M |
|
|
| 5279 |
375 |
ZnO |
NO-releasing biomaterials and devices |
NO |
E-chem |
|
|
1 × 10−9 |
M |
|
In detail, the probe was suspended in a glass vial filled with 10 mL 0.1 M H2SO4/0.1 M KI solution. Incremental volumes of 25 × 10−6 m KNO2 solution were added to the glass vial after a stable current baseline was observed. NO concentration was determined based on the amount of KNO2 added as the conversion of KNO2 to NO was stoichiometrically 1:1. To assess the capability of ZnO particles to catalyze GSNO to generate NO, the NO probe was placed in a glass vial containing 3.95 mL ZnO particles (0.1–0.4 g L−1) in PBS. Fifty microliters of GSNO solutions (5× 10−6–100 × 10−6 m) was added to the glass vial when a stable baseline was reached. Changes in current response were recorded over time using LabScribe2 software. All NO measurements were carried out in dark at 37 °C on a hot plate with constant stirring. |
| 5281 |
376 |
ND nanozymes |
multifunctional antibacterial agents |
|
|
|
|
|
|
|
|
| 5282 |
377 |
A-PCM |
self-energy biomimetic sensing platform |
DPV responses |
E-chem |
0.3–100 |
μM |
8.4 |
nM |
|
This will provide experimental support for self-energy biomimetic sensing platform based on PCM integrated with a supercapacitor self-energy system and oxidase-like sensing system in the near future. |
| 5283 |
377 |
A-PCM |
self-energy biomimetic sensing platform |
DPV responses |
E-chem |
0.3–100 |
μM |
8.4 |
nM |
|
|
| 5284 |
378 |
rGO/CM (6 h) (2:1) |
glucose sensing activity |
|
Color |
1–10 |
μM |
0.15 |
μM |
|
|
| 5286 |
378 |
rGO/CM (6 h) (2:1) |
glucose sensing activity |
|
Color |
1–10 |
μM |
0.15 |
μM |
|
Fig. 5d shows the HR-TEM images of rGO/CM (48 h) nanocomposites where large size (∼500 nm) polyhedrons are attached with rGO sheet. |
| 5285 |
378 |
rGO/CM (6 h) (2:1) |
glucose sensing activity |
glucose |
Color |
1–50 |
μM |
0.43 |
μM |
|
|
| 5289 |
379 |
EPC-900 |
luorometric sensing of glucose |
glucose |
Color |
0.05–10 |
mM |
30 |
μM |
|
|
| 5287 |
379 |
EPC-900 |
Colorimetric detection of ACP |
Acid phosphatase (ACP) |
Color |
0.5-15 |
U/L |
0.1 |
U/L |
|
The ΔA652nm value increased linearly with the increasing ACP activity from 0.5 to 15 U L−1. |
| 5288 |
379 |
EPC-900 |
Colorimetric detection of ACP |
Acid phosphatase (ACP) |
Color |
0.5-15 |
U/L |
0.1 |
U/L |
|
|
| 5290 |
381 |
PdCu TPs/PG |
sensitive detection of HBe Ag |
HBe Ag |
Color |
from 60 fg·mL−1 to 100 ng·mL−1 |
|
20 |
fg·mL−1 |
|
|
| 5291 |
382 |
MnO2-Silk film |
may have significant implications on understanding the interaction of other metal oxides with various biomaterials. |
|
|
|
|
|
|
|
|
| 5292 |
383 |
AuNPs@Ag |
detect the viral HEV containing in fecal samples collected from HEV-infected monkey |
HEV-LPs |
Color |
8.75 × 10−8– 10−11 |
g mL−1 |
4.3 × 10−12 |
g mL−1 |
|
|
| 5293 |
385 |
Au@Pt nanoparticles |
a signal amplification strategy |
a widespread and dangerous phytopathogenic bacteria species (Clavibacter michiganensis) |
|
|
|
|
|
|
|
| 5294 |
386 |
PEI-AgNCs |
With the above understanding, the PEI-AgNC-catalyzed TMB + Cr6+ chromogenic reaction is able to be employed to detect toxic Cr6+ photometrically. |
Cr3+ |
Color |
5~100 |
μM |
3.7 |
μM |
|
|
| 5297 |
387 |
Ag@Ag2WO4 NRs |
H2O2 and glucose sensing |
H2O2 |
Color |
62.34~2400 |
μM |
6.25 |
μM |
|
Since Glucose oxidase could be denatured at pH 3.0 acetate buffer solution, glucose detection was realized by the following procedure: 200 μL of glucose with different concentrations in 0.01 M acetate buffer solution (pH 5.0) was prepared with 50 μL of 10 mg mL-1 GOx and incubated at 37 °C for 30 min. This solution was then added to a mixture of 50 μL of 10 mM TMB, 100 μL of 0.5 mg mL-1 Ag2WO4 NRs and 200 μL of 0.1 M acetate buffer (pH 5.0). The mixed solution was incubated at room temperature for 30 min, and used for absorbance measurement at 652 nm. |
| 5295 |
387 |
Ag@Ag2WO4 NRs |
H2O2 and glucose sensing |
glucose |
Color |
27.7~300 |
μM |
2.6 |
μM |
|
|
| 5296 |
387 |
Ag@Ag2WO4 NRs |
H2O2 and glucose sensing |
H2O2 |
Color |
62.34~2400 |
μM |
6.25 |
μM |
|
|
| 5298 |
388 |
COF-300-AR |
The practical application of COF-300-AR oxidase mimic for colorimetric detection of glutathione (GSH) was examined |
GSH |
Color |
1~15 |
μM |
1.0 |
μM |
|
|
| 5299 |
389 |
Au@PtNP |
Although these methods demonstrated advantages such as low cost and high selectiveness, the sensitivity needed to be improved further. In this work, we combined this Pb2+-S2O3 2−-based metal leaching with Au@PtNP nanozyme together to fabricate a new colorimetric determination of Pb2+. |
pb2+ |
Color |
20~800 |
nM |
3.0 |
nM |
|
|
| 5300 |
390 |
Nanozymes with hard coronas (Corona-NZ) |
We observed that the structure of the AuNP ligands dictates the formation of protein coronas and selectively controls catalytic activity of nanozymes. A hard “irreversible” corona (without TEG) deactivated nanozymes through aggregation and steric blocking, while a soft “reversible” corona (with TEG) partially reduced the catalytic activity. The catalytic activity of both soft and hard nanozymes was restored after proteolytic degradation of the protein corona through endogenous proteases present in the endosome and lysosome. Hence, a selective intracellular activation system (without TEG) and an always-on system (with TEG) are obtained by engineering the monolayer of ligands on nanoparticles. This study provides a direct and versatile approach for specific activation of bioorthogonal catalysts through tuning the formation of the protein corona on nanozymes. This approach has the potential to reduce the off-target effect and extend on-demand generation of imaging agents and localized therapeutics. The generality of this system is suitable for in vivo applications, which are currently under investigations in our group. |
|
|
|
|
|
|
|
|
| 5301 |
391 |
CuS HNSs. |
a portable and cost-effective Hg2+ nanosensor has been developed based on a desorption-free enrichmentdetection integration strategy. The core of the nanosensor is the employment of CuS HNSs, which play three roles including recognition unit for Hg2+ sensing, enrichment carrier for Hg2+ preconcentration, and mimetic peroxidase for signal amplification and readout. The customizable enrichmentdetection integration strategy gives the nanosensor a high selectivity, a wide detection range (50 ppt to 400 ppb), and a high sensitivity with a minimum detectable Hg2+ concentration of 50 ppt. In addition, the as-developed nanosensor is feasible for analysis of Hg2+ in real-world environmental and food samples with moderate accuracy (deviation <10%) and reproducibility (recovery ∼82%). |
Hg2+ |
Color |
|
|
0.05 |
ppb |
82 |
|
| 5302 |
392 |
2D TCPP(Fe)-BDMAEE |
The 2D supramolecular nanosheets possess distinctive features such as large area and excellent dispersibility, offering promising opportunity for catalytic and sensing applications. As a proof-of-concept application, the obtained 2D TCPP(Fe)-BDMAEE displays intrinsic peroxidase-like catalytic activity. |
H2O2 |
Color |
20-100 |
μM |
3.94 |
μM |
|
|
| 5303 |
393 |
C‑dots/Mn3O4 nanocomposite |
|
Fe2+ |
Color |
0.03-0.83 |
μM |
0.03 |
μM |
|
|
| 5305 |
394 |
Fe3O4@Cu/C |
To evaluate the peroxidase catalytic performance of Fe3O4@Cu/C and Fe3O4@CuO composites, catalytic experiments were performed toward the oxidative degradation of model organic dyes (MB) |
|
|
|
|
|
|
|
|
| 5304 |
394 |
Fe3O4@CuO |
To evaluate the peroxidase catalytic performance of Fe3O4@Cu/C and Fe3O4@CuO composites, catalytic experiments were performed toward the oxidative degradation of model organic dyes (MB) |
|
|
|
|
|
|
|
|
| 5306 |
395 |
Gold-Mesoporous Silica Heteronanostructures |
Au NPs supported onto mesoporous silica supports via electrostatic attraction represents a feasible and straightforward strategy to fabricate glucose-oxidase enzyme-like inorganic platforms able to deliver a successful performance under mild reaction conditions (neutral pH and temperature). |
|
|
|
|
|
|
|
|
| 5307 |
396 |
Certain engineered nanoparticles |
we present high-throughput screening assay using mesophyll protoplasts as model for studying the interaction between NPs and plants |
|
|
|
|
|
|
|
|
| 5308 |
397 |
PtNi nanocubes |
Herein, based on PtNi NCs-catalyzed TSA strategy, an enzyme-free and ultrasensitive ECL cytosensor for the detection of HepG2 cells (as a model) was constructed. |
tyramine-luminol |
Fluor |
10~100000 |
cells/ml |
3 |
cells/ml |
|
|
| 5309 |
398 |
FePPOPBFPB |
By utilizing its superior peroxidase activity, rapid and visible detection ofS. aureus based on FePPOPBFPB was first established with acceptable specificity, sensitivity, and stability. |
S. aureus |
Color |
100-107 |
CFU/ml |
24 |
CFU/ml |
|
|
| 5310 |
399 |
GO−Fe(III) |
Selective Photoreduction of Highly Toxic Pollutants |
|
|
|
|
|
|
|
|
| 5311 |
400 |
MS@MnO2 hybrid |
In situ fabrication of MS@MnO2 hybrid as nanozymes for enhancing ROS-mediated breast cancer therap |
|
|
|
|
|
|
|
|
| 5312 |
405 |
Ag3PO4 NPs |
|
chlorpyrifos |
Color |
|
|
9.97 |
ppm |
119.6738-179.3717 |
|
| 5313 |
407 |
Au NPs |
|
Hg2+ |
surface plasmon resonance |
1-2000 |
pM |
0.46 |
pM |
|
|
| 5314 |
410 |
Au@HMPB |
Detection protein biomarker |
sCD25 |
E-chem |
10pg/ml-10ng/ml |
|
3 |
pg/mL |
96.2-98.3 |
|
| 5315 |
413 |
MoS2-QDs-AgNPs |
visual determination of cysteine |
cysteine |
Color |
1-100 |
μM |
824 |
nM |
90-109 |
|
| 5316 |
414 |
PBA NCs |
Online Visible Light Absorption |
H2S |
Color |
0.1-20 |
μM |
33 |
nM |
|
|
| 5317 |
417 |
Fe3O4@MoS2-Ag nanozyme |
antibacterial |
|
|
|
|
|
|
|
|
| 5318 |
419 |
core–shell Mn/Fe PBA@Mn/Fe PBA |
Colorimetric analysis Cys |
Cys |
Color |
1-25 |
μM |
0.36 |
μM |
|
|
| 5320 |
419 |
core–shell Mn/Fe PBA@Mn/Fe PBA |
Colorimetric analysis of H2O2 |
H2O2 |
Color |
1-300 |
μM |
0.05 |
μM |
|
|
| 5319 |
419 |
core–shell Mn/Fe PBA@Mn/Fe PBA |
Colorimetric analysis Hg2+ |
Hg2+ |
Color |
0.1-15 |
μM |
0.02 |
μM |
|
|
| 5321 |
420 |
ZnCo2O4 |
Colorimetric assay of pyrophosphatase (PPase) |
ppase |
Color |
0.01-1 |
U/mL |
0.004 |
U/mL |
|
|
| 5322 |
420 |
ZnCo2O4 |
Colorimetric assay of Pyrophosphate (PPi) |
ppi |
Color |
0.05-1 |
mM |
0.01 |
mM |
|
|
| 5324 |
421 |
Por-NiCo2S4 |
detect H2O2 and cholesterol with a very low detection limit |
H2O2 |
Color |
0.02-1.0 |
mM |
10.06 |
μM |
|
|
| 5323 |
421 |
Por-NiCo2S4 |
Determination of cholesterol in human serum |
cholesterol |
Color |
0.1-9 |
mM |
19.36 |
μM |
|
|
| 5326 |
422 |
BSA-PtNP@MnCo2O4 |
biosensing of glutathione |
GSH |
Color |
1-10 |
μM |
0.42 |
μM |
|
|
| 5325 |
422 |
BSA-PtNP@MnCo2O4 |
Determination of glucose |
glucose |
Color |
10-120 |
μM |
8.1 |
μM |
|
|
| 5328 |
423 |
Lyz-AuNPs |
antibacterial |
|
|
|
|
|
|
|
|
| 5327 |
423 |
Lyz-AuNPs |
antibacterial |
|
|
|
|
|
|
|
We realise an antibacterial nanomaterial based on the self-limited assembly of patchy plasmonic colloids, obtained by adsorption of lysozyme to gold nanoparticles. |
| 5329 |
424 |
m-SAP/cDNA |
detection of aflatoxin B1 (AFB1) |
Aflatoxin B1 |
Color |
0.01-1000 |
ng/ml |
5 |
pg/ml |
0.042000000000000003 |
|
| 5330 |
425 |
AgBiS2 |
Multimodal Tumor Therapy |
|
|
|
|
|
|
|
|
| 5332 |
427 |
BMH Hydrogel |
simultaneous melanoma therapy and multidrug-resistant bacteria-infected wound healing |
|
|
|
|
|
|
|
we developed an injectable redox and light responsive bio-inspired MnO2 hybrid (BMH) hydrogel for effective melanoma photothermo-chemotherapy and MDR bacteria infected-wound healing. |
| 5331 |
427 |
BMH Hydrogel |
simultaneous melanoma therapy and multidrug-resistant bacteria-infected wound healing |
|
|
|
|
|
|
|
|
| 5334 |
428 |
Au–MoS2 nanocomposites |
detection of cadmium |
cadmium |
Color |
1-500 |
ng/ml |
0.7 |
ng/ml |
|
The developed method was successfully applied for the analysis of cadmium ions in white wine samples. |
| 5333 |
428 |
Au–MoS2 nanocomposites |
detection of cadmium |
cadmium |
Color |
1-500 |
ng/ml |
0.7 |
ng/ml |
|
|
| 5335 |
429 |
ZIF@GOx/GQDs |
tumor therapy |
|
|
|
|
|
|
|
enhanced penetration and deep catalytic therapy |
| 5336 |
429 |
ZIF@GOx/GQDs |
tumor therapy |
|
|
|
|
|
|
|
|
| 5337 |
430 |
Pt@MnO2 |
sensitive Salmonella biosensor |
Salmonella |
Color |
15-150000 |
CFU/mL |
13 |
CFU/mL |
|
|
| 5338 |
430 |
Pt@MnO2 |
sensitive Salmonella biosensor |
Salmonella |
Color |
15-150000 |
CFU/mL |
13 |
CFU/mL |
|
Then, the detection antibodies (DAbs) modified Pt@MnO2 NFs were used for labelling magnetic bacteria to form MNB-CAb-Salmonella-DAb-Pt@MnO2 NF complexes (nanoflower bacteria). After nanoflower bacteria were resuspended with H2O2 in a sealed centrifuge tube, H2O2 was catalyzed by Pt@MnO2 NFs to produce O2, resulting in the increase on pressure. |
| 5340 |
431 |
NC |
Stem cell and tissue regeneration analysis |
|
|
|
|
|
|
|
Cerium oxide nanoparticles (nanoceria) show radioprotective effects on stem cells and in tissue regeneration in planarians. |
| 5339 |
431 |
NC |
Stem cell and tissue regeneration analysis |
|
|
|
|
|
|
|
|
| 5341 |
432 |
GMOF-LA |
Cancer Therapy |
|
|
|
|
|
|
|
|
| 5343 |
433 |
AuNP−TTMA |
protection of biorthogonal transition metal catalysts |
|
|
|
|
|
|
|
|
| 5342 |
433 |
AuNP−TTMA |
protection of biorthogonal transition metal catalysts |
|
|
|
|
|
|
|
We demonstrate here the protection of biorthogonal transition metal catalysts (TMCs) in biological environments by using self-assembled monolayers on gold nanoparticles (AuNPs). |
| 5344 |
435 |
MnNS:CDs |
non-invasive multi-modal imaging and therapy |
|
|
|
|
|
|
|
|
| 5345 |
436 |
MPBs |
detection of uric acid in whole blood |
UA |
Color |
1.5-8.5 |
mg/dL |
|
|
|
|
| 5346 |
436 |
MPBs |
detection of uric acid in whole blood |
UA |
Color |
1.5-8.5 |
mg/dL |
|
|
|
The mHealth LFP could achieve a wide detection range of 1.5-8.5 mg/dL UA. |
| 5348 |
437 |
Au NP |
protein detection |
|
|
|
|
|
|
|
|
| 5347 |
437 |
Au NP |
protein detection |
|
|
|
|
|
|
|
A colorimetric sensor array for protein detection is developed. |
| 5350 |
438 |
CS-IONzymes |
provides an antiviral alternative for designing nasal vaccines based on IONzyme to combat influenza infection |
|
|
|
|
|
|
|
This work provides an antiviral alternative for designing nasal vaccines based on IONzyme to combat influenza infection. |
| 5349 |
438 |
CS-IONzymes |
provides an antiviral alternative for designing nasal vaccines based on IONzyme to combat influenza infection |
|
|
|
|
|
|
|
|
| 5351 |
440 |
PEG-Au/FeMOF@CPT NPs |
Cancer Therapy |
|
|
|
|
|
|
|
Triggered by the high concentration of phosphate inside the cancer cells, Au/FeMOF@CPT NPs effectively collapse after internalization, resulting in the complete drug release and activation of the cascade catalytic reactions. |
| 5352 |
440 |
PEG-Au/FeMOF@CPT NPs |
Cancer Therapy |
|
|
|
|
|
|
|
|
| 5353 |
441 |
Pdots@AMP-Cu |
detection of dopamine |
Dopamine (DA) |
Fluor |
10-400 |
μM |
4 |
μM |
|
|
| 5354 |
443 |
Au-nanozymes and MnO2-nanozymes |
colorimetric method for glutathione (GSH) detection |
GSH |
Color |
0.05-0.19,0.19-11.35 |
mg/L |
0.02 |
mg/L |
|
|
| 5355 |
443 |
Au-nanozymes and MnO2-nanozymes |
colorimetric method for glutathione (GSH) detection |
GSH |
Color |
0.05-0.19,0.19-11.35 |
mg/L |
0.02 |
mg/L |
|
Using Au-nanozymes for selectivity and MnO2-nanozymes for sensitivity enchantment. |
| 5357 |
444 |
HA@Fe3O4@SiO2 |
Colorimetric determination of tumor cells |
tumor cell |
Color |
|
|
|
|
|
In the presence of HeLa cells, the visible region absorbance sharply decreased up to the cell concentration of 0.25 × 106 cells/mL, with both nanozymes (Fig. 9A). In the concentration range of 0.25–4.0 × 106 cells/mL, the visible region absorbance linearly decreased with the increasing cell concentration, with satisfactorily high correlation coefficients for both nanozymes. However, a sharper linear decrease with almost 1.6 times higher slope was observed with HA@Fe3O4@SiO2 microspheres with respect to Fe3O4@SiO2 microspheres with HeLa cells. |
| 5356 |
444 |
HA@Fe3O4@SiO2 |
Colorimetric determination of tumor cells |
tumor cell |
Color |
|
|
|
|
|
|
| 5358 |
445 |
FNs |
mitigation of potential cytotoxicity |
|
|
|
|
|
|
|
|
| 5359 |
445 |
FNs |
mitigation of potential cytotoxicity |
|
|
|
|
|
|
|
This work raises new questions about the roles of biogenic nanomaterials in the coevolution of the lithosphere and biosphere and provides a step toward understanding the feedback pathways controlling the evolution of biogenic mineral formation. |
| 5360 |
446 |
Au@Co-Fe NPs |
antibacterial |
|
|
|
|
|
|
|
|
| 5361 |
447 |
KD8@N-MCNs |
phototherapy of Alzheimer’s disease (AD) |
|
|
|
|
|
|
|
|
| 5362 |
448 |
PtCuCo-TAs |
miRNA-21 detection |
miRNA-21 |
CL |
5 × 10−16 - 1 × 10-10 |
M |
1.67 × 10−16 |
M |
99.0–104.4% |
this method can effectively apply for the detection of miRNA-21 with accuracy and reliability in sample analysis. |
| 5363 |
448 |
PtCuCo-TAs |
miRNA-21 detection |
miRNA-21 |
CL |
5 × 10−16 - 1 × 10-10 |
M |
1.67 × 10−16 |
M |
99.0–104.4% |
|
| 5364 |
449 |
CNP/CNPs |
Antioxidative photochemoprotector effects |
|
|
|
|
|
|
|
|
| 5365 |
450 |
RGD-BSA-CuCs |
catalytic cancer-specific DNA cleavage and operando imaging |
|
|
|
|
|
|
|
|
| 5367 |
451 |
PI/CdS |
detection of hypoxanthine |
hypoxanthine |
E-chem |
0.010-10.0 |
mM |
5.28 |
μM |
95.5 %–105.9 % |
|
| 5366 |
451 |
PI/CdS |
detection of hypoxanthine |
hypoxanthine |
E-chem |
0.010-10.0 |
mM |
5.28 |
μM |
95.5 %–105.9 % |
Human serum samples were diluted 20-fold with phosphate buffer solution (pH 7.4) in advance. |
| 5370 |
452 |
GO/AuNPs |
H2O2 detection |
H2O2 |
Color |
3.8×10–7~5.5×10–5 |
M |
4.2×10–8 |
M |
|
|
| 5368 |
452 |
GO/AuNPs |
glucose detection |
glucose |
Color |
5.1×10–6~5.1×10–4 |
M |
6.3×10–7 |
M |
105.3%-108.3% |
The real human serum was used as test samples to investigate the practical application of the proposed analysis. Human serum samples were taken from Xi'a University of Science and Technology Hospital. As the normal content of human blood glucose is 3.9–6.1 mmol/L [38], before the test, the collected serum samples need to be diluted to meet the requirements of this method after centrifugation. The glucose test results are shown in Table 2. For three different test samples, the detection results from this method are not substantially different from those given by the hospital. |
| 5369 |
452 |
GO/AuNPs |
glucose detection |
glucose |
Color |
5.1×10–6~5.1×10–4 |
M |
6.3×10–7 |
M |
105.3%-108.3% |
|
| 5372 |
453 |
Pt |
Colorimetric Determination of Total Antioxidant Level in Saliva |
|
|
|
|
|
|
|
TAC levels of saliva samples collected from 83 healthy volunteers, aged between 20 and 50 years, measured by the nanozyme-based assay. |
| 5371 |
453 |
Pt |
Colorimetric Determination of Total Antioxidant Level in Saliva |
|
|
|
|
|
|
|
|
| 5373 |
454 |
Anti-PSA-Ab Coated Au NPs |
Sensitive Colorimetric Detection of Prostate Specific Antigen |
BSA |
Color |
0.25-2500 |
ng/mL |
0.23 |
ng/mL |
|
|
| 5374 |
456 |
Nanocages |
the laccase-like activity of Nanocages was integrated with an online sensing platform for in vivo and continuous optical hydrogen sulfide monitoring in the brains of living rats |
hydrogen sulfide |
E-chem |
0.1-15 |
μM |
33 |
nM |
|
After testing the excellent capabilities of the OODP toward H2S monitoring, the animal model was carried out to test the ability of the constructed method. |
| 5375 |
456 |
Nanocages |
the laccase-like activity of Nanocages was integrated with an online sensing platform for in vivo and continuous optical hydrogen sulfide monitoring in the brains of living rats |
hydrogen sulfide |
E-chem |
0.1-15 |
μM |
33 |
nM |
|
|
| 5376 |
456 |
Nanocages |
The peroxidase- and catalase-mimicking activities were applied to eliminate reactive oxygen species in cells |
|
|
|
|
|
|
|
|
| 5377 |
457 |
CuS-BSA-Cu3(PO4)2 |
detection of H2O2 |
H2O2 |
Color |
0–8 |
μM |
22 |
nM |
98.12-101.9% |
Typically, using a standard addition method, H2O2 at 20, 50, and 100 nM is spiked into contact lens care solution obtained from a pharmacy. The H2O2 content present in lens care solution is determined from an already established calibration plot, generated at 654 nm using different H2O2 concentrations under the same assay mentioned above. Percentage recovery is assessed using Eq. (8), and the results are summarized in Table 3 (n = 3). |
| 5378 |
457 |
CuS-BSA-Cu3(PO4)2 |
detection of H2O2 |
H2O2 |
Color |
0–8 |
μM |
22 |
nM |
98.12-101.9% |
|
| 5380 |
458 |
Fe3O4@MnOx |
quantifying and identifying chlorophenols |
chlorophenols |
Color |
10–1600 |
μM |
0.85 |
μM |
97.0% to 107.2% |
In the present study, the tap water was obtained from our research laboratory, and the river water was gained from the campus of Jiangsu University, China. Prior to test, these water samples were filtered by 0.22 μm microfiltration membranes. The detection results are listed in Table S2 (Supplementary Information). |
| 5379 |
458 |
Fe3O4@MnOx |
quantifying and identifying chlorophenols |
chlorophenols |
Color |
10–1600 |
μM |
0.85 |
μM |
97.0% to 107.2% |
|
| 5383 |
459 |
Ag-MA |
selective colorimetric and efficient removal strategy for mercury (II) |
Hg2+ ions |
Color |
0.50-700 |
nM |
0.18 |
nM |
98.15–105.1 % |
Hg2+ ions in wastewater samples |
| 5381 |
459 |
Ag-MA |
selective colorimetric and efficient removal strategy for mercury (II) |
Hg2+ ions |
Color |
1.0-600 |
nM |
0.33 |
nM |
|
|
| 5384 |
459 |
Ag-MA |
selective colorimetric and efficient removal strategy for mercury (II) |
Hg2+ ions |
Color |
1.0-600 |
nM |
0.33 |
nM |
|
probe Hg2+ ions in blood |
| 5382 |
459 |
Ag-MA |
selective colorimetric and efficient removal strategy for mercury (II) |
Hg2+ ions |
Color |
0.10–700 |
nM |
0.025 |
nM |
|
Fig. 6A illustrates the calibration detection curve for Hg2+ ions in buffer |
| 5385 |
460 |
CeO2–x |
Antibacterial |
|
|
|
|
|
|
|
|
| 5387 |
461 |
PdCuAu NPs |
detect glucose |
glucose |
Color |
0.5–500 |
μM |
25 |
nM |
|
|
| 5386 |
461 |
PdCuAu NPs |
detection of H2O2 |
H2O2 |
Color |
0.1–300 |
μM |
5 |
nM |
|
|
| 5388 |
462 |
CuO NPs |
AA sensing |
AA |
Color |
1.25-112.5 |
μM |
32 |
nM |
92.6-110.6 % |
|
| 5389 |
463 |
ZV-Mn NPs |
Detection of hydrogen peroxide |
H2O2 |
Color |
10–280 |
μM |
0.20 |
μM |
|
|
| 5390 |
464 |
FePorMOF |
CL Imaging Assay of Glucose and AFP |
Glucose |
CL |
50-1000 |
μM |
39.2 |
μM |
|
|
| 5394 |
465 |
Pt NC/3D GF nanohybrid |
Detection of Catechol and Hydroquinone |
HQ |
Color |
0.05–1 and 1–50 |
μM |
10 |
nM |
95.8-99.6% |
different concentrations of HQ were spiked in the systems containing CC and then analyzed with the means |
| 5391 |
465 |
Pt NC/3D GF nanohybrid |
Detection of Catechol and Hydroquinone |
Catechol |
Color |
0.5-800 |
μM |
50 |
nM |
|
As shown in Figure 6, after incubation with the Pt NC/3D GF nanohybrid in pH 7.0 BR buffer at 30 °C for 15 min, the absorbance of the system at 388 nm gradually increased with the increase of catechol concentration. |
| 5392 |
465 |
Pt NC/3D GF nanohybrid |
Detection of Catechol and Hydroquinone |
HQ |
Color |
0.05–1 and 1–50 |
μM |
10 |
nM |
95.8-99.6% |
|
| 5393 |
465 |
Pt NC/3D GF nanohybrid |
Detection of Catechol and Hydroquinone |
Catechol |
Color |
0.5-800 |
μM |
50 |
nM |
|
|
| 5396 |
466 |
4-AHA@AuNPs nanoparticles |
selective determination of mercury and iron in ground water |
Fe3+ |
Color |
5–50 |
ppb |
4.0 |
ppb |
|
|
| 5395 |
466 |
4-AHA@AuNPs nanoparticles |
selective determination of mercury and iron in ground water |
Hg2+ |
Color |
5-200 |
ppb |
2.5 |
ppb |
|
|
| 5397 |
468 |
Ag2-xCuxS NPs |
Colorimetric urine glucose detection |
glucose |
Color |
0-30 |
mM |
0.37 |
mM |
|
The obtained glucose concentrations are mostly consistent with that tested by GOD-PAP biochemical analyzer in hospital (Table S2, SI). |
| 5398 |
468 |
Ag2-xCuxS NPs |
Colorimetric urine glucose detection |
glucose |
Color |
0-30 |
mM |
0.37 |
mM |
|
|
| 5400 |
469 |
V2O5 nanobelts |
glucose detection |
glucose |
Color |
1-1000 |
μM |
0.33 |
μM |
|
|
| 5399 |
469 |
V2O5 nanobelts |
glucose detection |
glucose |
Color |
1-1000 |
μM |
0.33 |
μM |
|
Online Monitoring of Glucose in Living Rat Brain |
| 5401 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Morus |
Color |
0-40 |
μM |
0.47 |
μM |
|
|
| 5402 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Cichorium intybus |
Color |
0-30 |
μM |
0.37 |
μM |
|
|
| 5403 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Orange juice |
Color |
0-8 |
μM |
0.08 |
μM |
|
|
| 5404 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Trolox |
Color |
0-35 |
μM |
0.34 |
μM |
|
|
| 5405 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Chlorogenic acid |
Color |
0-12 |
μM |
0.11 |
μM |
|
|
| 5406 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Tannic acid |
Color |
0-6 |
μM |
0.06 |
μM |
|
|
| 5407 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Ferulic acid |
Color |
0-12 |
μM |
0.19 |
μM |
|
|
| 5408 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
L-cysteine |
Color |
0-30 |
μM |
0.37 |
μM |
|
|
| 5409 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Ascorbic acid (AA) |
Color |
0-35 |
μM |
0.39 |
μM |
|
|
| 5410 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Lemon juice |
Color |
0-7 |
μM |
0.08 |
μM |
|
|
| 5411 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Caffeic acid |
Color |
0-20 |
μM |
0.27 |
μM |
|
|
| 5412 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Quercetin |
Color |
0-7.5 |
μM |
0.11 |
μM |
|
|
| 5413 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Eucalyptus |
Color |
0-15 |
μM |
0.24 |
μM |
|
|
| 5414 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Thymes |
Color |
0-35 |
μM |
0.42 |
μM |
|
|
| 5415 |
470 |
Tα-MOF |
The apparent Km of Tα-MOF is measured 3.180 mM and 0.0109 µM for TMB and H2O2, respectively. In this study, the LOD values for Ferulic acid, Tannic acid, and Chlorogenic acid were 0.19, 0.06, and 0.11, respectively. The RAC value obtained for tannic acid, orange juice, and lemon juice was 4.79, 3.37, and 3.53, respectively. |
Ascorbic acid (AA) |
Color |
0-35 |
μM |
0.39 |
μM |
|
Relatively, the extracts lead to a discoloring tendency in the order of Lemon Juice > Orange Juice > Eucalyptus > Cichorium intybus > Thymes > Morus |
| 5417 |
471 |
Co2V2O7 particles |
H2O2 and Glucose Detection |
H2O2 |
Fluor |
0.008-3.2 |
μM |
0.002 |
μM |
|
|
| 5419 |
471 |
Co2V2O7 particles |
H2O2 and Glucose Detection |
glucose |
Fluor |
0.1–80 |
μM |
0.03 |
μM |
99.02-104.93% |
The glucose detection system also possessed good selectivity, and when the concentration of other sugars was 10 times higher than that of glucose (Figure 5f), no significant interference with the reaction system was observed. |
| 5418 |
471 |
Co2V2O7 particles |
GSH Detection |
GSH |
Color |
2.5–20 |
μM |
0.64 |
μM |
97.4-98.7% |
|
| 5416 |
471 |
Co2V2O7 particles |
H2O2 and Glucose Detection |
glucose |
Fluor |
0.1–80 |
μM |
0.03 |
μM |
99.02-104.93% |
|
| 5420 |
474 |
Ce/Pr-CQDs |
readily internalized into cytoplasm, decreasing the level of reactive oxygen species (ROS). |
|
|
|
|
|
|
|
|
| 5421 |
475 |
Fe3O4-NPs |
Attenuated Salmonella Infection in Chicken Liver |
|
|
|
|
|
|
|
|
| 5422 |
477 |
NC@GOx NPs |
Starvation therapy enhanced photothermal and chemodynamic tumor therapy |
|
|
|
|
|
|
|
|
| 5423 |
478 |
DNA/MoS2 NSs |
Detection of carcinoembryonic antigen (CEA) in a sensitive manner |
carcinoembryonic antigen (CEA) |
Color |
50-1000 |
ng/mL |
50 |
ng/mL |
|
|
| 5424 |
479 |
GO/PVA/G4/H hydrogel |
Electrochemical detection of H2O2 |
H2O2 |
E-chem |
100-100000000 |
nM |
100 |
nM |
|
|
| 5425 |
483 |
DMSN@AuPtCo |
Decontaminate two kinds of wastewater and avoiding secondary pollution |
|
|
|
|
|
|
|
|
| 5426 |
484 |
Co3O4/MO3 |
Sense H2O2 and screen acetylcholinesterase activity and its inhibitor |
H2O2 |
Color |
0.1-200 |
μM |
0.08 |
μM |
|
|
| 5427 |
484 |
Co3O4/MO3 |
Sense H2O2 and screen acetylcholinesterase activity and its inhibitor |
acetylcholinesterase (AChE) |
Color |
0.005-1.0 |
U/L |
0.1 |
mU/L |
|
|
| 5428 |
485 |
CeO2 NCs |
Promise antibacterial performance |
|
|
|
|
|
|
|
|
| 5429 |
486 |
Mn3O4 NPs |
Boost endogenous antioxidant metabolites in cucumber (Cucumis sativus) plant and enhance resistance to salinity stress |
|
|
|
|
|
|
|
|
| 5430 |
487 |
Cu-MOPN |
Highly selective detection of Cys in serum |
cysteine |
Fluor |
1-50 |
μM |
93 |
nM |
|
|
| 5431 |
488 |
HRP/MB/chitosan/MoS2/GF |
Enhanced voltammetric determination of hydrogen peroxide |
H2O2 |
E-chem |
0.1-90 |
μM |
30 |
nM |
|
|
| 5432 |
489 |
Fe/Al-GNE |
pH-independent chemodynamic therapy of cancer |
|
|
|
|
|
|
|
|
| 5434 |
490 |
Zn-TCPP(Fe) |
Colorimetric detection of alkaline phosphatase |
Alkaline phosphatase (ALP) |
Color |
50-200 |
U/L |
50 |
U/L |
|
Three linear ranges of 2.5–20 U L−1, 5–60 U L−1, and 50–200 U L−1 could be obtained by using PPi, ATP, and ADP as inhibitors, respectively. |
| 5433 |
490 |
Zn-TCPP(Fe) |
Colorimetric detection of alkaline phosphatase |
Alkaline phosphatase (ALP) |
Color |
50-200 |
U/L |
50 |
U/L |
|
|
| 5435 |
492 |
CoPc |
Determination of hydrogen peroxide and glucose |
glucose |
E-chem |
0.1-1 |
mM |
63 |
μM |
|
|
| 5436 |
492 |
CoPc |
Determination of hydrogen peroxide and glucose |
H2O2 |
E-chem |
12.3–49 000 |
μM |
8 |
μM |
|
|
| 5437 |
493 |
molecularly imprinted film conjugated with horseradish peroxidase(HRP) |
Determination of Methimazole in Urine Sample |
methimazole |
Unsure |
|
|
0.9 |
μg/L |
|
|
| 5438 |
493 |
molecularly imprinted film conjugated with horseradish peroxidase(HRP) |
Determination of Methimazole in Urine Sample |
methimazole |
Unsure |
|
|
0.9 |
μg/L |
|
This is the first example to monitor methimazole with a direct com-petitive biomimetic enzyme-linked immunosorbent assay (BELISA) method |
| 5439 |
495 |
β-CD@AuNPs–MWCNTs |
Sensitive electrochemical analysis of target 8-hydroxy-2′-deoxyguanosine (8-OHdG) based on reversible capture/release of electronic media in a fast and green manner |
8-hydroxy-2′-deoxyguanosine |
E-chem |
0.0001-10 |
nM |
30 |
fM |
|
|
| 5440 |
496 |
CS-MNPs |
Colorimetric Bacteria Detection |
bacteria |
Color |
10^2-10^6 |
CFU/mL |
10^2 |
CFU/mL |
|
|
| 5441 |
497 |
CuS NPs |
Antibacterial treatment |
|
|
|
|
|
|
|
|
| 5442 |
498 |
SPDA |
Colorimetric detection of pyrophosphate |
pyrophosphate |
Color |
0.1-30 |
μM |
0.06 |
μM |
|
|
| 5444 |
500 |
CNF/FeCDs |
Smartphone-based colorimetric detection of hydrogen peroxide and glucose |
glucose |
Color |
10-70 |
μM |
1.73 |
μM |
|
|
| 5443 |
500 |
CNF/FeCDs |
Smartphone-based colorimetric detection of hydrogen peroxide and glucose |
H2O2 |
Color |
6-42 |
μM |
0.93 |
μM |
|
|
| 5445 |
501 |
Cu-HCF SSNEs |
Tumor-Specific Amplified Cascade Enzymatic Therapy |
|
|
|
|
|
|
|
|
| 5446 |
502 |
M/CeO2 |
Detection of H2O2 and glucose |
H2O2 |
Color |
10-100 |
μM |
2 |
μM |
|
|
| 5447 |
502 |
M/CeO2 |
Detection of H2O2 and glucose |
glucose |
Color |
0.01-1 |
mM |
8.6 |
μM |
|
|
| 5448 |
504 |
COF-Au-MnO2 |
Enhanced photodynamic therapy via catalytic cascade reactions |
|
|
|
|
|
|
|
|
| 5449 |
505 |
PtCu NAs |
Prevention of pathologic α-synuclein transmission in Parkinson’s disease |
|
|
|
|
|
|
|
|
| 5450 |
506 |
Fe–N4 pero-nanozysome |
Hyperuricemia and Ischemic Stroke |
|
|
|
|
|
|
|
|
| 5451 |
507 |
PtCu bimetallic nanoalloys (NAs) |
S for prevention of pathologic -synuclein transmission in Parkinson’s disease |
|
|
|
|
|
|
|
|
| 5453 |
509 |
AuNPs@C.CNF |
Detection of glucose |
glucose |
Color |
1–60 |
μM |
0.67 |
μM |
|
|
| 5452 |
509 |
AuNPs@C.CNF |
Detection of H2O2 |
H2O2 |
Color |
0.5–30 |
μM |
0.30 |
μM |
|
|
| 5454 |
510 |
Mn3O4 nanoparticles (NPs) c |
Procedure for arsenic determination |
arsenic |
Color |
5-100 |
μg/L |
1.32 |
μg/L |
91.74% - 112.14% |
|
| 5455 |
511 |
ZnO-Pt-gC3N4 |
glucose sensing |
glucose |
E-chem |
0.25–110 |
mM |
0.1 |
μM |
100, 98.2 and 95% |
|
| 5456 |
512 |
NiCo2O4-Au composite |
for killing bacteria and disinfecting wound |
|
|
|
|
|
|
|
|
| 5457 |
513 |
FA-AgNPs |
for rheumatoid arthritis therapy |
|
|
|
|
|
|
|
|
| 5458 |
515 |
aptamers@BSA-AuNCs |
for colorimetric detection of Salmonella typhimurium |
Salmonella typhimurium |
Color |
101-106 |
cfu/mL |
1 |
cfu/mL |
92.4% - 110% |
|
| 5459 |
517 |
GOx@h-CNT/Fe3O4/ZrO2 |
Colorimetric detection of glucose |
glucose |
Color |
0–1.6 |
mM |
6.9 |
μM |
|
|
| 5460 |
518 |
Hep-Pt NCs |
Colorimetric tests of H2O2 and glucose |
glucose |
Color |
0.1 ∼ 2.0 |
mM |
33 |
μM |
98%-104.0% |
|
| 5461 |
520 |
MPBN |
Analysis of RAC and CLE in real samples |
CLE |
Color |
0.5-12 |
ng/mL |
0.20 |
ng/mL |
86.96%–119.94% |
|
| 5462 |
520 |
MPBN |
Analysis of RAC and CLE in real samples |
RAC |
Color |
0.5-6 |
ng/mL |
0.12 |
ng/mL |
84.01% - 119.94% |
|
| 5463 |
521 |
Fe3O4 |
Determination of Cr6+ |
Cr6+ |
Color |
0−500 |
μM |
0.03465 |
μM |
92.43%-110.66% |
|
| 5464 |
522 |
MIL-88@Pt@MIL-88@sDNA |
exosomal miRNAs detection |
exosomal miRNAs |
E-chem |
1 fM to 1 nM |
|
2.00 |
fM |
|
|
| 5466 |
523 |
CeO2 NPs |
for organophosphorus pesticides （OPs ）and oxytetracycline（OTC） detection using CeO2 NPs |
oxytetracycline（OTC） |
Color |
100–800 |
nM |
10.2 |
nM |
92.9% - 104.1% |
|
| 5465 |
523 |
CeO2 NPs |
for organophosphorus pesticides （OPs ）and oxytetracycline（OTC） detection using CeO2 NPs |
organophosphorus pesticides （OPs |
Color |
50–1000 |
ng/mL |
7.6 |
ng/mL |
97.2%-107.0% |
|
| 5467 |
524 |
Pd@Pt-GOx/hyaluronic acid (HA |
for High-Efficiency Starving-Enhanced Chemodynamic Cancer Therapy |
|
|
|
|
|
|
|
|
| 5468 |
525 |
Gold and magnetic particles (GoldMag) |
for determination of cholesterol |
cholesterol |
Color |
0.018–1.4 |
mM |
7.9 |
μM |
98.57%-106.8% |
|
| 5469 |
526 |
Pt2+@g-C3N4 |
for glucose detection |
glucose |
Color |
13–2000 |
μM |
10 |
μM |
|
|
| 5470 |
527 |
Fe3O4 NPs |
for Diabetes Care in Genetically or Diet-Induced Models |
|
|
|
|
|
|
|
|
| 5472 |
528 |
CuO nanorods (NRs) |
Application in living cell epinephrine analysis |
epinephrine |
E-chem |
0.04-14 |
μM |
0.02 |
μM |
|
|
| 5471 |
528 |
CuO nanorods (NRs) |
Application in living cell epinephrine analysis |
epinephrine |
Color |
0.6-18 |
μM |
0.31 |
μM |
|
|
| 5473 |
529 |
man-PB |
for rapid detection of Escherichia coli O157:H7 (E. coli O157:H7) |
Escherichia coli O157:H7 (E. coli O157:H7) |
Color |
0-108 |
cfu/mL |
102 |
cfu/mL |
90% - 110% |
|
| 5474 |
530 |
HCS@Pt NPs |
for photodynamic and catalytic synergistic tumor therapy |
|
|
|
|
|
|
|
|
| 5475 |
531 |
Zn-N-C-800 |
peroxidase-like activity |
|
|
|
|
|
|
|
|
| 5476 |
533 |
Ag-CoO NP |
for colorimetric sensing hydrogen peroxide and o-phenylenediamine |
hydrogen peroxide |
Color |
5-20 |
μM |
3.47 |
μM |
|
|
| 5477 |
533 |
Ag-CoO NP |
for colorimetric sensing hydrogen peroxide and o-phenylenediamine |
o-phenylenediamine |
Color |
1−20 |
μM |
0.65 |
μM |
|
|
| 5478 |
534 |
Ag@Ag2WO4 NRs |
for colorimetric detection of Hg2+ |
Hg2+ |
Color |
0.25 - 8.0 |
μM |
1.6 |
nM |
95.0% -106.0% |
|
| 5479 |
535 |
Fe-Nx SANs |
Detection of Aβ 1-40 |
Aβ 1-40 |
Color |
1-2000 |
pg/mL |
0.88 |
pg/mL |
|
|
| 5480 |
536 |
Cu/Au/Pt TNs |
Detection of microcystin-LR |
microcystin-LR |
Color |
4.0-10000 |
ng/L |
3.0 |
ng/L |
|
|
| 5481 |
537 |
MoS2/C-Au600 |
Detection of H2O2 |
H2O2 |
Color |
10-200 |
µmol/L |
1.82 |
µmol/L |
|
|
| 5482 |
537 |
MoS2/C-Au600 |
MoS2/C-Au600 with peroxidase-like activity can image cancer cells in the presence of TMB and H2O2 |
|
|
|
|
|
|
|
|
| 5483 |
538 |
iron alkoxide |
Detection and removal of arsenate |
arsenate |
Color |
3.33-333.33 |
μg/L |
1.57 |
μg/L |
|
|
| 5484 |
539 |
GA-NFs |
Detection of m‑cresol |
m‑cresol |
Color |
0.05-0.5 |
mM |
|
|
|
|
| 5485 |
540 |
Fe3O4@CP |
Detection of GSH |
GSH |
Color |
0.2-40 |
μM |
0.05 |
μM |
|
|
| 5486 |
540 |
Fe3O4@CP |
Detection of H2O2 |
H2O2 |
Color |
0.2-300 |
μM |
0.11 |
μM |
|
|
| 5487 |
543 |
Au@SiO2-NH2 |
Gold nanorod-based nanoplatform catalyzes constant NO generation and protects from cardiovascular injury |
|
|
|
|
|
|
|
|
| 5488 |
544 |
CuCo2S4 NPs |
For combating burn infections |
|
|
|
|
|
|
|
|
| 5489 |
545 |
NSP-CQDs |
NSP-CQDs was further utilized for antibacterial assays |
|
|
|
|
|
|
|
|
| 5490 |
546 |
Detection of acetylcholinesterase activity |
Detection of acetylcholinesterase activity |
acetylcholinesterase (AChE) |
Color |
0.2-50 |
mU/mL |
0.14 |
mU/mL |
|
|
| 5491 |
549 |
β-CD@AuNPs |
sense PPase activity at neutral pH |
|
colorimetric and photothermal |
|
|
|
|
|
|
| 5492 |
552 |
MnO2 nanoparticles |
Colorimetric detection of TATP |
TATP |
Color |
1.57-10.50 |
mg/L |
0.34 |
mg/L |
105 |
|
| 5493 |
553 |
CoMoO4 nanobelts |
Colorimetric detection of H2O2 |
H2O2 |
Color |
0.5-25 |
μM |
0.27 |
μM |
|
|
| 5494 |
554 |
Pd@Au nanostructures |
Detection of glucose |
glucose |
Color |
0.02-2 |
mM |
9.28 |
μM |
|
|
| 5495 |
555 |
MnO2–Au |
antitumor |
|
|
|
|
|
|
|
|
| 5496 |
556 |
UiO-66 |
Enhances Hydrolytic Activity toward Peptide Bonds |
|
|
|
|
|
|
|
|
| 5497 |
557 |
Magnetic Nanoflowers |
this work documented MNPs PDA–Cu NFs as an efficient catalyst for catalytic reduction of organic dyes with the ability of facile recyclability. Additionally, MNPs PDA–Cu NFs were recognized as one of the nanozymes owing to peroxidase-like activity. Polydopamine and copper nanoparticles in MNPs PDA–Cu NFs have shown antimicrobial behavior toward Gram-negative bacteria (P. aeruginosa and E. coli) and Gram-positive bacteria (S. aureus). |
|
|
|
|
|
|
|
|
| 5498 |
558 |
Fe3O4@NH2-MIL-101(Fe) |
colorimetric detection of glucose |
glucose |
Color |
1.7-750 |
μM |
0.22 |
μM |
100.5 |
|
| 5499 |
559 |
Ni/Al–Fe(CN)6 LDH |
Determination of Cr (VI) |
Cr (VI) |
Fluor |
0.067-10 |
μM |
0.039 |
μM |
|
|
| 5500 |
560 |
Mesoporous Pd@Pt |
detection of atrazine |
atrazine |
Color |
0.1-500 |
ng/mL |
0.5 |
ng/mL |
98.6-103.3 |
|
| 5501 |
561 |
urchin-like Pt nanozymes |
monitoring of glycated albumin |
glycated albumin |
Color |
10-5000 |
ug/mL |
9.2 |
ug/mL |
106-107 |
|
| 5502 |
563 |
ficin@PCN-333(Fe) |
colorimetric detection of glucose |
glucose |
Color |
0.5-180 |
μM |
96 |
nM |
|
|
| 5503 |
565 |
Au–Ag@HA NPs |
Enhanced Cancer Therapy |
|
|
|
|
|
|
|
|
| 5504 |
566 |
Cerium Oxide NSs |
Detection of H2O2 |
H2O2 |
Electrode |
20–100 |
mM |
0.02 |
μM |
|
|
| 5505 |
567 |
Co3O4 NCs |
Detection of NO2 |
NO2 |
electrodes |
0.3-1.5 |
ppm |
0.3 |
ppm |
|
|
| 5506 |
568 |
Cu2O nanocubes |
Detection of S. aureus |
S. aureus |
Photoelectric |
50-10e9 |
CFU mL−1 |
10 |
CFU mL−1 |
|
|
| 5507 |
569 |
Au NPs |
DNA release |
|
|
|
|
|
|
|
|
| 5508 |
570 |
DNA-Cu/Ag NCs |
Detection of H2O2 |
H2O2 |
colorimetric |
100-1000 |
μM |
7.42 |
μM |
|
|
| 5509 |
571 |
N/Cl-CDs |
Detection of H2O2 |
H2O2 |
fluorescence |
1-30 |
μM |
0.27 |
μM |
|
|
| 5510 |
572 |
CFPN |
oxidation of natural organic matters |
|
|
|
|
|
|
|
|
| 5511 |
573 |
AgNPs@Fe3O4 |
Detection of cysteine |
cysteine |
colorimetric |
0-20 |
μM |
87 |
nM |
|
|
| 5512 |
574 |
Pt-HMCNs |
Detection of H2O2 |
H2O2 |
colorimetric |
6.0-60 |
μM |
2.81 |
μM |
|
|
| 5513 |
575 |
BP QDs |
Detection of cysteine |
cysteine |
colorimetric |
0.1-10.0 |
μM |
0.03 |
μM |
|
|
| 5514 |
575 |
BP QDs |
Detection of glutathione |
glutathione |
colorimetric |
0.1-5.0 |
μM |
0.02 |
μM |
|
|
| 5515 |
576 |
EMSN-PtNCs |
Detection of H2O2 |
H2O2 |
colorimetric |
1-50 |
μM |
0.87 |
μM |
|
|
| 5516 |
577 |
Zn-TCPP(Fe) |
superoxide scavenging |
|
|
|
|
|
|
|
|
| 5517 |
578 |
Co4S3 |
Antibacterial |
|
|
|
|
|
|
|
|
| 5518 |
579 |
MnO2 |
Detection of glutathione |
glutathione |
colorimetric |
0.11-45 |
μM |
0.1 |
μM |
|
|
| 5519 |
580 |
WO3−x QDs |
detection of cholesterol |
cholesterol |
colorimetric |
0.01-1.0 |
mM |
3.0 |
μM |
|
|
| 5520 |
581 |
Fe–N–C |
detection of uracil DNA glycosylase |
uracil DNA glycosylase |
electrochemical |
0.0005-1 |
U/mL |
74 |
μU/mL |
|
|
| 5521 |
582 |
Ag5PMo12@PPy |
detection of uric acid |
uric acid |
colorimetric |
1-50 |
μM |
0.47 |
μM |
|
|
| 5522 |
583 |
FA-PMo4V8 |
detection of sarcosine |
sarcosine |
colorimetric |
0.2-500 |
μM |
0.311 |
μM |
|
|
| 5523 |
584 |
NMPs |
Antibacterial |
|
|
|
|
|
|
|
|
| 5524 |
585 |
Fe3O4-PAA-PB-AA |
Fenton/ferroptosis therap |
ROS |
|
|
|
|
|
|
|
| 5525 |
587 |
CeO2 microcapsule |
assessing |
intracellular ROS |
|
|
|
|
|
|
|
| 5526 |
588 |
PPy@MoS2@Au |
detection of tannic acid |
tannic acid |
colorimetric |
1.0-100 |
μM |
0.87 |
μM |
|
|
| 5527 |
590 |
GdW10O36 nanoclusters |
Antibacterial |
|
|
|
|
|
|
|
|
| 5528 |
591 |
TACN AuNPs |
anticancer prodrugs |
|
|
|
|
|
|
|
|
| 5529 |
592 |
Au−Cu2−xS |
photothermal therapy and chemical dynamic therapy |
|
|
|
|
|
|
|
|
| 5530 |
594 |
Pt/ZnCo2O4 |
Detection of ascorbic acid |
Ascorbic acid (AA) |
|
1-15 |
μM |
0.456 |
μM |
|
|
| 5531 |
596 |
GOx@Pd@ZIF-8 |
a synergistic cancer therapeutic that blocks glucose metabolism and produces ROS |
|
|
|
|
|
|
|
|
| 5532 |
597 |
6-PAAC-30 |
alcohol and glucose detection |
glucose |
E-chem |
0-40 |
mM |
2.50 |
mM |
|
|
| 5533 |
597 |
6-PAAC-30 |
alcohol and glucose detection |
alcohol |
E-chem |
0-6 |
mM |
0.50 |
mM |
|
|
| 5534 |
598 |
CeO2 NPs |
personal glucose meter-based label-free target DNA detection |
DNA |
Color |
5-100 |
nM |
|
|
|
|
| 5535 |
599 |
Pd91-GBLP NPs |
the colorimetric detection of glucose |
glucose |
Color |
2.5-700 |
μM |
1 |
μM |
|
|
| 5536 |
600 |
PtNPs@PCs |
lead ion detection |
lead ion |
E-chem |
0.05-1000 |
nM |
0.018 |
nM |
|
|
| 5537 |
601 |
AuMS |
the selective colorimetric detection of dopamine |
Dopamine (DA) |
Color |
10-80 |
μM |
1.28 |
nM |
|
|
| 5538 |
602 |
Fe3O4 nanoparticles |
enhance the yield of DMBQ in the fermentation process |
|
|
|
|
|
|
|
|
| 5539 |
603 |
ACP/hemin@Zn-MOF |
ratiometric fluorescent arsenate sensing |
arsenate |
Fluor |
3.33-300 |
μg/L |
1.05 |
μg/L |
|
|
| 5540 |
604 |
GO/AuNPs |
detection of Hg2+ |
Hg2+ |
Color |
5.2-120 |
nM |
0.38 |
nM |
|
|
| 5541 |
605 |
Ce-MOF |
sensitive detection of hydrogen peroxide and ferric ions |
Fe2+ |
Fluor |
0.016-0.133 |
μM |
0.016 |
μM |
|
|
| 5542 |
605 |
Ce-MOF |
sensitive detection of hydrogen peroxide and ferric ions |
H2O2 |
Fluor |
200-1500 |
μM |
10 |
μM |
|
|
| 5543 |
606 |
Pt NPs-PVP |
theranostic application in acute kidney injury |
|
|
|
|
|
|
|
|
| 5544 |
607 |
Cu-rGO |
Colorimetric detection of H2O2 and glucose |
glucose |
Color |
10-100 |
μM |
10 |
μM |
|
|
| 5545 |
607 |
Cu-rGO |
Colorimetric detection of H2O2 and glucose |
H2O2 |
Color |
10-100 |
μM |
0.1 |
μM |
|
|
| 5546 |
609 |
Mn3(PO4)2/MXene |
realtime sensitive sensing cell superoxide |
O2•− |
E-chem |
5.75-25930 |
nM |
1.63 |
nM |
|
|
| 5547 |
610 |
FePc/HNCSs |
ynergistic Catalytic Therapy and Dual Phototherapy |
|
|
|
|
|
|
|
|
| 5548 |
611 |
CeVO4 |
Regulates Mitochondrial Function and ATP Synthesis in Neuronal Cells |
|
|
|
|
|
|
|
|
| 5549 |
613 |
NH2-MIL-53(Fe) |
dual-mode detection of prostate specific antigen |
PSA |
CL |
1-30 |
ng/mL |
0.3 |
ng/mL |
|
|
| 5550 |
613 |
NH2-MIL-53(Fe) |
dual-mode detection of prostate specific antigen |
PSA |
Fluor |
0.5-30 |
ng/mL |
0.2 |
ng/mL |
|
|
| 5551 |
614 |
PbS NPs@RGO/NiO NSAs |
Function-switchable self-powered photoelectrochemical biosensor for H2O2 and glucose monitoring |
H2O2 |
|
0-100 |
mM |
0.018 |
mM |
|
|
| 5552 |
614 |
PbS NPs@RGO/NiO NSAs |
Function-switchable self-powered photoelectrochemical biosensor for H2O2 and glucose monitoring |
glucose |
|
0.1 ~ 1 × 10-7 |
M |
5.3*10-8 |
M |
|
|
| 5553 |
615 |
Pt-Ce6 |
enhanced PDT/PTT tumor therapy |
|
|
|
|
|
|
|
|
| 5554 |
617 |
LM |
portable immunoassay of allergenic proteins based on A smartphone |
α-LA |
|
0.12-3.46 |
ng/mL |
0.056 |
ng/mL |
|
|
| 5555 |
618 |
MoO3−x NDs |
Near-Infrared Regulated Nanozymatic/Photothermal/Photodynamic Triple-Therapy for Combating Multidrug-Resistant Bacterial Infections |
|
|
|
|
|
|
|
|
| 5556 |
619 |
DFHHP |
overcoming hypoxia-induced resistance to chemotherapy and inhibiting tumor growth by inducing collaborative apoptosis and ferroptosis in solid tumors |
|
|
|
|
|
|
|
|
| 5557 |
621 |
Au@Pt |
Ag+ detection by LSPR spectroscopy |
Ag+ |
Color |
0.5-1000 |
μM |
500 |
nM |
|
|
| 5558 |
622 |
TiO2/Bi2WO6/Ag heterojunction |
hydrogen sulfide detection |
H2S |
|
0.5-100 |
μM |
0.06 |
μM |
|
|
| 5559 |
622 |
TiO2/Bi2WO6/Ag heterojunction |
hydrogen sulfide detection |
H2S |
E-chem |
0.5-300 |
μM |
0.08 |
μM |
|
|
| 5560 |
623 |
thiamine-MnO2 |
A thiamine-triggered fluormetric assay for acetylcholinesterase activity and inhibitor screening |
acetylcholinesterase (AChE) |
Fluor |
0.02-1 |
mU/mL |
15 |
μU/mL |
|
|
| 5561 |
624 |
AMP-Cu |
Efficient elimination and detection of phenolic compounds in juice |
phenolic compounds |
|
0.1-100 |
μmol·L−1 |
0.033 |
μmol·L−1 |
|
|
| 5562 |
625 |
Ceria NPs |
Acute Kidney Injury Alleviation |
|
|
|
|
|
|
|
|
| 5563 |
626 |
AuPd @MnO2 |
Detection of Tetrabromobisphenol A |
Tetrabromobisphenol A |
E-chem |
0.44-46.49 |
ng/mL |
0.10 |
ng/mL |
|
|
| 5564 |
627 |
Supramolecular Amino acids |
Photosensitizing Nanozyme for Combating Hypoxic Tumors |
|
|
|
|
|
|
|
|
| 5565 |
628 |
MIL-100 |
For synergetic chemo-photodynamic tumor therapy |
|
|
|
|
|
|
|
|
| 5566 |
629 |
DNA-Au/Pt NCs |
Detection of Staphylococcus aureus bacteria |
|
Color |
102-108 |
CFU/mL |
80 |
CFU/mL |
|
|
| 5567 |
630 |
POMOFs@PDDA-rGO |
Detection of H2O2 and Citric acid |
Citric acid |
|
1–60 |
μM |
2.07 |
μM |
|
|
| 5568 |
631 |
Fe-PorCOF |
Glucose sensing |
Glucose |
|
0.01to 10.0 |
μmol·L-1 |
5.3 |
nmol·L-1 |
|
|
| 5569 |
636 |
MWCNT@MoS2 NS's |
Determination of 5-Nitroguaiacol |
|
|
0.1–70 |
μM |
0.02 |
μM |
|
|
| 5570 |
637 |
Magnetite@cellulose NCs |
Glucose monitoring |
Glucose |
|
|
|
5 |
mM |
|
|
| 5571 |
638 |
Fe3O4 |
For Cancer Magneto-Catalytic Theranostics |
|
|
|
|
|
|
|
|
| 5572 |
639 |
WS2 QDs |
For Antibacterial and Anti-biofilm Therapie |
|
|
|
|
|
|
|
|
| 5573 |
640 |
Pd12 nanocage |
Photocatalytic antibacterial activity |
|
|
|
|
|
|
|
|
| 5574 |
643 |
CuO |
Sensing of Alkaline phosphate |
Ascorbic acid (AA) |
Fluor |
|
|
2.92×10-8 |
M |
|
|
| 5575 |
643 |
CuO |
Sensing of Alkaline phosphate |
Alkaline phosphatase (ALP) |
Fluor |
|
|
0.058 |
U/L |
|
|
| 5576 |
647 |
MoSe2 |
Sening |
H2O2 |
Color |
10-100 |
μM |
4 |
μM |
|
|
| 5577 |
648 |
Au/OMCS |
Electrochemical Sensor |
Xanthine |
E-chem |
0.10–20 |
μM |
0.006 |
μM |
|
|
| 5579 |
651 |
FeS2/SiO2 |
Detection |
TMB |
Color |
1-4- |
μM |
0.16 |
μM |
|
|
| 5578 |
651 |
FeS2/SiO2 |
Detection |
H2O2 |
Color |
/L |
μM |
0.00420 |
μM |
|
|
| 5580 |
653 |
MnO2 |
CO Therapy |
|
Color |
|
|
|
|
|
|
| 5581 |
654 |
FeS2/SiO2 |
Detection |
H2O2 |
Color |
/L |
μM |
0.00420 |
μM |
|
|
| 5582 |
654 |
FeS2/SiO2 |
Detection |
TMB |
Color |
1-4- |
μM |
0.16 |
μM |
|
|
| 5583 |
655 |
Cu-Carbon dots |
Detection |
Cr |
Fluor |
0.2-100 |
μM |
36 |
nM |
|
|
| 5584 |
656 |
CeO2 |
pesticide detection. |
Methyl-paraoxon |
E-chem |
0.1-100 and 0.1-10 |
μM/L |
0.06 |
μM/L |
|
What's more, the oxidation peak current increased linearly with MP concentration in the ranges of 0.1–10 μmol/L and 10–100 μmol/L, with correlation coefficients (R2) higher than 0.99 for both two analytical curves (n=3, Fig. 6B). |
| 5585 |
657 |
iron oxides |
The activity curves and descriptors are expected to serve as a simple but robust theoretical tool for computer-aided screening and design of nanozymes, which could greatly facilitate the discovery of new nanozymes in the future. |
|
|
|
|
|
|
|
|
| 5586 |
658 |
AuNPs |
detection cysteine |
|
Color |
0.5-20 |
μM |
0.5 |
μM |
|
|
| 5587 |
658 |
AuNPs |
detection cysteine in biological fluids |
|
Color |
0.5-50 |
μM |
0.5 |
μM |
|
To this end, we tested human urine samples for different concentrations of cysteine using the system established in this paper. |
| 5588 |
659 |
Mn/Ni(OH)x LDHs |
antibacteria |
|
|
|
|
|
|
|
|
| 5589 |
660 |
Fe3O4/Au NPs |
detection of Staphylococcus aureus |
S. aureus |
Color |
10 ~ 1000000 |
cfu/mL |
10 |
cfu/mL |
|
|
| 5590 |
661 |
Fe-SAzyme |
detection of galactose |
TMB |
Color |
50-500 |
μM |
10 |
μM |
104.83~105.33% |
|
| 5591 |
662 |
g-C3N4 |
detection of H2O2 |
H2O2 |
Fluor |
90-2500 |
nM |
73 |
nM |
|
|
| 5592 |
663 |
S-rGO |
detection of glucose |
TMB |
Color |
1-100 |
μM |
0.38 |
μM |
|
|
| 5593 |
664 |
NLISA-T |
detection of serum |
TMB |
Color |
0.1-10 |
ng/mL |
0.08 |
ng/mL |
|
|
| 5594 |
664 |
NLISA-H |
detection of serum |
HAuCl4 |
Color |
0.1-10 |
ng/mL |
0.05 |
|
|
|
| 5595 |
665 |
GO-UO22+ NPs |
detection of uranyl ions |
TMB |
Color |
5.9-943 |
μM |
4.7 |
μM |
96.82-98.31% |
|
| 5596 |
666 |
AuNCs-SF |
detection of H2O2 |
H2O2 |
Fluor |
0.1-100 |
mM |
0.072 |
mM |
95.12-99.76% |
|
| 5597 |
667 |
nanoceria |
ROS elimination |
|
|
|
|
|
|
|
|
| 5598 |
668 |
D-Trp-OMe@AuNCs |
detection of trtracycline |
TMB |
Color |
1.5-30.0 |
μM |
0.20 |
μM |
99.0-105.0% |
|
| 5599 |
669 |
GNR |
detection of dopamine |
DA |
Color |
0.1–1, 2.5–50 |
μM |
0.035 |
μM |
90-110% |
|
| 5600 |
670 |
Fe3S4 |
detection of glucose |
glucose |
Color |
0.5-150 |
μM |
0.1 |
μM |
93.7-101.4% |
|
| 5601 |
671 |
IrNPs |
antibacteria |
|
|
|
|
|
|
|
|
| 5602 |
672 |
MoS2-Lys NSs |
antibacteria |
|
|
|
|
|
|
|
|
| 5603 |
673 |
metallo-nanozymes |
This work highlights the minimal principle and excellent catalytic performance of stable metallo-nanozymes, opening up immense opportunities in the development of highly efficient nanozymes and catalytic prodrug conversion. |
|
|
|
|
|
|
|
|
| 5604 |
674 |
Fe3O4 MNPs |
cell disruption |
|
|
|
|
|
|
|
|
| 5605 |
675 |
AIronNPs |
wound disinfection and healing |
|
|
|
|
|
|
|
|
| 5606 |
676 |
PBNPs-icELISA |
determination of free GCA |
GCA |
Color |
0.03-1.20 |
μg/mL |
2.5 × 10−3 |
μg/mL |
|
|
| 5607 |
677 |
HyPEI-supported ZnS NC |
The catalyst, however, could be easily adapted to apply broadly to different protoenzymatic systems. |
|
|
|
|
|
|
|
|
| 5608 |
678 |
g-C3N4 |
analyzing biological fluids. |
|
Fluor |
|
|
1 |
μM |
|
|
| 5609 |
679 |
R-MnCo2O4 |
construct highly sensitive biosensors. |
TMB |
Color |
|
|
|
|
|
|
| 5610 |
680 |
Mn3O4 |
enhance the biosemiconductor performance |
|
|
|
|
|
|
|
|
| 5611 |
682 |
Cu-Cys NLs |
detetion of epinephrine |
epinephrine |
Color |
9–455 |
μM/L |
2.7 |
μM/L |
100.1-108.3% |
|
| 5612 |
683 |
BiVO4 |
detection of β-lactoglobulin |
β-lactoglobulin |
E-chem |
0.01-1000 |
ng/mL |
0.007 |
ng/mL |
|
|
| 5613 |
686 |
nano-MnO2 |
driven E2 radical polymerization and decomposition |
|
|
|
|
|
|
|
|
| 5614 |
687 |
CuSNPs |
determination of o,o-dimethyl-o-2,2-dichlorovinyl phosphate (DDVP) |
DDVP |
Fluor |
0.0001 to 0.1 |
μg/mL |
0.1 |
ng/mL |
|
|
| 5615 |
688 |
RuO2 |
detection of H2O2 |
H2O2 |
Color |
10-600 |
μM |
|
|
|
|
| 5616 |
689 |
Fe@NCDs |
detection of uric acid |
uric acid |
Color |
2–150 |
μM |
0.64 |
μM |
|
|
| 5617 |
690 |
Cu2+-NMOFs |
detection of bacterial lipopolysaccharide (LPS) |
LPS |
E-chem |
0.0015 to 750 |
ng/mL |
6.1 × 10−4 |
ng/mL |
|
|
| 5619 |
691 |
Fe-doped g-C3N4 nanoflake |
detection of sarcosine (SA) |
SA |
Color |
10-500 |
μM |
8.6 |
μM |
|
|
| 5618 |
691 |
Fe-doped g-C3N4 nanoflake |
detection of hydrogen peroxide (H2O2) |
H2O2 |
Color |
2-100 |
μM |
1.8 |
μM |
|
|
| 5620 |
692 |
CDs |
enzymatic enantioselectivity |
|
|
|
|
|
|
|
|
| 5621 |
693 |
Au-Fe2O3 |
cancer assay detection |
T47D cancer cell line |
E-chem |
10–100000 |
cells ml−1 |
0.4 |
U ml−1 |
|
|
| 5622 |
694 |
graphene/Fe3O4-AuNP |
detection of Pb2+ |
Pb2+ |
Color |
1–300 |
ng/mL |
0.63 |
ng/mL |
|
|
| 5623 |
695 |
Pt |
detect ascorbic acid in triplicate |
Ascorbic acid (AA) |
Color |
1-20 |
μM |
|
|
|
The limits of detection were 131 ± 15, 144 ± 14, and 152 ± 9 nM, with little difference. |
| 5624 |
696 |
Fe3O4@MnO2 |
enhance the radiosensitivity |
|
|
|
|
|
|
|
|
| 5625 |
699 |
MCDs-MnO2 NPs |
detection of food- and water-borne pathogens |
gram-negative bacterium and the gram-positive bacterium |
Color |
10 to 1000000 |
cfu mL−1 |
100 |
cfu mL−1 |
|
|
| 5626 |
700 |
Fe3O4 MCs |
facilitate the CDT |
|
|
|
|
|
|
|
|
| 5627 |
701 |
Hep-Pd NPs |
determination of Pro |
protamine |
Color |
0.02 ~ 0.8 |
μg mL−1 |
0.014 |
μg mL−1 |
|
|
| 5628 |
702 |
CSA-based nanoparticles |
detection of H2O2 |
H2O2 |
Color |
5-400 |
μM |
3.32 |
μM |
|
|
| 5629 |
703 |
GO/Ag |
biosensing |
|
|
|
|
|
|
|
|
| 5630 |
704 |
Au-hematene |
glucose sensor |
glucose |
E-chem |
0-3.2 mM |
mM |
0.4 |
mM |
|
|
| 5631 |
705 |
ATF |
detection of cancer cells |
cancer cells |
|
|
|
2000 |
cancer cells/mL |
|
|
| 5632 |
707 |
AuNPs |
detection of Opisthorchis viverrini antigen (OvAg) in urine samples |
Opisthorchis viverrini antigen (OvAg) |
Color |
|
|
23.4 |
ng mL-1 |
|
|
| 5633 |
708 |
Mn-MPSA-PCC |
monitoring of O2 •− released from cancer cells |
O2 •− |
E-chem |
|
|
|
|
|
|
| 5634 |
709 |
HA-PB/ICG |
drug delivery |
|
|
|
|
|
|
|
|
| 5635 |
710 |
LaMNPs |
inhibition of the tumor growth |
|
|
|
|
|
|
|
|
| 5636 |
711 |
DhHP-6-c-ZrMOF |
promising catalyst for the high-efficiency degradation of phenol pollutants |
|
|
|
|
|
|
|
|
| 5637 |
712 |
hemin-GroEL |
detection of glucose |
glucose |
Fluor |
0-6 |
mM |
|
|
|
|
| 5638 |
713 |
SOD-Fe0@Lapa-ZRF |
kill tumor cells via the multi-enzyme cascades |
|
|
|
|
|
|
|
|
| 5639 |
714 |
A-nanoceria |
an effective alternative to the current DMARDs in RA therapy |
|
|
|
|
|
|
|
|
| 5640 |
715 |
gCuHCF |
as a peroxidase mimetic in oxidase-based biosensors |
|
|
|
|
|
|
|
|
| 5641 |
717 |
Fe2O3/CNTs |
Highly Efficient Dopamine Sensing |
Dopamine (DA) |
Color |
0-25 |
μM |
0.11 |
μM |
|
|
| 5642 |
719 |
Fe-BTC |
H2O2 dection |
H2O2 |
Color |
0.04-30 |
μM |
36 |
nM |
|
|
| 5643 |
719 |
Fe-BTC |
glucose biosensing |
glucose |
Color |
0.04-20 |
μM |
39 |
nM |
|
|
| 5645 |
722 |
PtNPs@MWCNTs |
xylose biosensor |
xylose |
E-chem |
5-400 |
μM |
1 |
μM |
|
|
| 5644 |
722 |
PtNPs@MWCNTs |
NADH detection |
NADH |
|
1-200 |
μM |
0.8 |
μM |
|
|
| 5646 |
723 |
dex-MoSe2 NS |
detection of glucose |
glucose |
Color |
0.04-0.40 |
mM |
0.028 |
mM |
97.2%-106.1% |
|
| 5647 |
725 |
laccase/Fe-BTC-NiFe2O4 |
degrade pollutants in water |
|
|
|
|
|
|
|
|
| 5648 |
726 |
NH2-MIL-88B(Fe)-Ag |
wound-healing |
|
|
|
|
|
|
|
|
| 5650 |
727 |
Ir NPs |
detection of glucose |
glucose |
Color |
0.01-2 |
mM |
5.8 |
μM |
93.3–104% |
|
| 5649 |
727 |
Ir NPs |
detection of glutathione |
GSH |
Color |
0.2-100 |
μM |
|
|
|
|
| 5651 |
728 |
GOx@MOF |
One-step cascade detection of glucose at neutral pH |
glucose |
Color |
8-140 |
μM |
2.67 |
μM |
|
|
| 5652 |
729 |
Ags-APMSNs |
Mumps Virus Diagnosis |
mumps-specific IgM antibodies |
Color |
10-100000 |
ng/mL |
10 |
ng/mL |
|
|
| 5653 |
731 |
CD |
inhibiting neuronal death |
|
|
|
|
|
|
|
|
| 5654 |
732 |
Mn0.98Co0.02O2 |
treatment of gout |
|
|
|
|
|
|
|
|
| 5656 |
733 |
Ti3C2 |
detect IR-b |
IR-b |
Color |
0.5-8 |
ng/mL |
|
|
|
|
| 5655 |
733 |
paper-based sensors of His-Ti3C2 |
detection of glucose |
glucose |
Color |
0.01-0.64 |
mM |
0.01 |
mM |
|
|
| 5657 |
734 |
ZrO2 NPs |
near-infrared intracellular imaging |
|
|
|
|
|
|
|
|
| 5658 |
735 |
Au@Pt |
highly sensitive sensing of matrix metalloproteinase 2 |
MMP-2 |
E-chem |
0.5–100 |
ng/mL |
0.18 |
ng/mL |
96.1 to 104.4% |
|
| 5659 |
736 |
CQDs |
determination of ascorbic acid |
AA |
Color |
1.0-105 |
μM |
0.14 |
μM |
94.3–110.0% |
|
| 5660 |
737 |
H-MnFe(OH)x |
multi-therapeutics delivery and hypoxia-modulated tumor treatment |
|
|
|
|
|
|
|
|
| 5661 |
738 |
LIPIA |
as Chiral Scaffolds for Supramolecular Nanozymes |
|
|
|
|
|
|
|
|
| 5662 |
739 |
QG |
Slowed Inflammation and Increased Tissue Regeneration in Wound Hypoxia |
|
|
|
|
|
|
|
|
| 5663 |
740 |
SP-SPIO-IR780 and SPA-SPIO-IR780 |
Dual-modality Imaging Guided Nanoenzyme Catalysis Therapy and Phototherapy |
|
|
|
|
|
|
|
|
| 5664 |
741 |
Fe-COFs |
detect H2O2 and degrade RhB |
H2O2 |
Color |
10-2000 |
μM |
5.6 |
μM |
96.27-100.70% |
|
| 5665 |
742 |
PFO/PFDBT-5 Pdots |
AChE detection |
acetylcholinesterase (AChE) |
Fluor |
0-500 |
U/L |
0.59 |
U/L |
|
|
| 5666 |
743 |
ADH/GOx@TM |
sustainable catalytic NAD+ /NADH cycling |
|
|
|
|
|
|
|
|
| 5667 |
744 |
Pt-GNRs |
cancer treatment |
|
|
|
|
|
|
|
|
| 5668 |
745 |
Pt/WO2.72 |
H2O2 detection |
H2O2 |
Color |
0.005-12 |
mM |
2.33 |
μM |
|
|
| 5669 |
745 |
Pt/WO2.72 |
glucose detection |
glucose |
Color |
0.01-0.6 |
mM |
5.9 |
μM |
|
|
| 5670 |
745 |
Pt/WO2.72 |
radical elimination |
|
|
|
|
|
|
|
|
| 5671 |
747 |
2D Co3O4@Rh NC |
colorimetric sensing of urea and p-Ap |
UREA |
Color |
6-165 |
μM |
1.1 |
μM |
96-105.8 |
|
| 5672 |
747 |
2D Co3O4@Rh NC |
colorimetric sensing of urea and p-Ap |
p-aminophenol |
Color |
1.7-105 |
μM |
0.68 |
μM |
96-105.8 |
|
| 5673 |
748 |
|