Other — Three-dimensional Co/Ni bimetallic organic frameworks for high-efficient catalytic ozonation of atrazine: Mechanism, effect parameters, and degradation pathways analysis

Measurement evidence

Other

Three-dimensional Co/Ni bimetallic organic frameworks for high-efficient catalytic ozonation of atrazine: Mechanism, effect parameters, and degradation pathways analysis · Ye G., Luo P., Zhao Y. et al. · Chemosphere · 2020 · 126767

9 measurement groups · 118 results

Reported values remain attached to the sample, method, conditions, extraction quality and source location that produced them.

Blank atrazine degradation control

Blank control without ozone or catalyst · Model

Atrazine solution held for the same short-term degradation period without ozone and without catalysts.

Context
blank non-MOF control
Measurement source
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Atrazine removal without ozone and catalysts0.1%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a

Catalytic ozonation of atrazine

Co-MOF red crystals · Powder

Same base conditions as Co/Ni-MOF catalytic test.

Atmosphere
O3 generated from pure O2
Geometry
250 mL three-necked flask
Context
single-metal pristine control
Measurement source
4-5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Atrazine removed by Co-MOF alone after 20 minMarked as a best value within this paper13.1%——Text
Exact Reported
4-5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Atrazine removal after catalytic ozonation67.0%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Pseudo-first-order fit R20.970——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
Apparent pseudo-first-order rate constant0.097 min-1—R2 = 0.970Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
TOC removal16.5%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2c

Catalytic ozonation of atrazine

Co/Ni-MOF brown powder · Powder

200 mL 10 mg L-1 atrazine; catalyst 0.5 g L-1; pH 7; O3 8 +/- 1 mg L-1; gas flow 1 L min-1; 300 rpm; 10 min adsorption then 10 min degradation.

Atmosphere
O3 generated from pure O2
Geometry
250 mL three-necked flask
Context
target bimetallic sample
Measurement source
3-5 · 2.4 Experimental procedures; 3.2 Catalytic ozonation activity for atrazine · Fig. 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Atrazine removed by Co/Ni-MOF alone after 20 min9.9%——Text
Exact Reported
4-5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Atrazine removal after catalytic ozonationMarked as a best value within this paper93.9%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Pseudo-first-order fit R20.991——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
Apparent pseudo-first-order rate constantMarked as a best value within this paper0.288 min-1—R2 = 0.991Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
TOC removalMarked as a best value within this paper28.2%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2c

Catalytic ozonation of atrazine

Ni-MOF green crystals · Powder

Same base conditions as Co/Ni-MOF catalytic test.

Atmosphere
O3 generated from pure O2
Geometry
250 mL three-necked flask
Context
single-metal pristine control
Measurement source
4-5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Atrazine removed by Ni-MOF alone after 20 min9.6%——Text
Exact Reported
4-5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Atrazine removal after catalytic ozonation75.5%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Pseudo-first-order fit R20.998——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
Apparent pseudo-first-order rate constant0.133 min-1—R2 = 0.998Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
TOC removal20.6%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2c

O3-only ozonation of atrazine

O3-only ozonation control · Model

Same base ozonation conditions without catalyst.

Atmosphere
O3 generated from pure O2
Geometry
250 mL three-necked flask
Context
non-MOF control
Measurement source
4-5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Atrazine removal after ozonation47.8%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2a
Pseudo-first-order fit R20.939——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
Apparent pseudo-first-order rate constant0.075 min-1—R2 = 0.939Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2b
Atrazine removal with TBA quencher in O3-only system15.1%——Text
Exact Reported
7 · 3.5 Mechanism investigation · Fig. 6a
TOC removal9.5%——Text
Exact Reported
5 · 3.2 Catalytic ozonation activity for atrazine · Fig. 2c

UPLC-MS/MS degradation-intermediate analysis

Co/Ni-MOF brown powder · Powder

UPLC-MS/MS in positive ESI mode; m/z 50-300; Co/Ni-MOF catalytic ozonation at different reaction times.

Context
target bimetallic sample
Measurement source
10 · 3.6 Degradation pathways analysis of atrazine · Table S2; Fig. 7; Fig. S12-S24
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
ATZ M+H+ m/zATZ m/z=216.1005; 2-chloro-4-ethylamino-6-isopropylamino-1,3,5-triazine; formula C8H14N5Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2
CAAT M+H+ m/zCAAT m/z=146.0225; 2-chloro-4,6-diamino-1,3,5-triazine; formula C3H4N5Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S19
CAIT M+H+ m/zCAIT m/z=188.0694; 2-chloro-4-amino-6-isopropylamino-1,3,5-triazine; formula C6H10N5Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S18
CDHT M+H+ m/zCDHT m/z=246.0734; 2-chloro-4-acetamido-6-(2-hydroxy-isopropylamino)-triazine; formula C8H12N5O2Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S15
CDIT M+H+ m/zCDIT m/z=230.0797; 2-chloro-4-acetamido-6-isopropylamino-triazine; formula C8H12N5OCl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S13
CEAT M+H+ m/zCEAT m/z=174.0538; 2-chloro-4-ethylamino-6-amino-triazine; formula C5H8N5Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S17
CNIT M+H+ m/zCNIT m/z=232.0954; 2-chloro-4-(2-hydroxy-ethylamino)-6-isopropylamino-triazine; formula C8H14N5OCl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S12
CVAT M+H+ m/zCVAT m/z=172.0380; 2-chloro-4-vinylamino-6-amino-triazine; formula C5H6N5Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S16
CVIT M+H+ m/zCVIT m/z=214.0847; 2-chloro-4-vinylamino-6-isopropylamino-triazine; formula C8H12N5Cl——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S14
DAAT M+H+ m/zDAAT m/z=128.0564; 2-hydroxy-4,6-diamino-1,3,5-triazine; formula C3H5N5O——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S20
DAIT M+H+ m/zDAIT m/z=170.1032; 2-hydroxy-4-amino-6-isopropylamino-1,3,5-triazine; formula C6H11N5O——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S23
DEAT M+H+ m/zDEAT m/z=156.0877; 2-hydroxy-4-ethylamino-6-amino-1,3,5-triazine; formula C5H9N5O——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S22
DEIT M+H+ m/zDEIT m/z=198.1334; 2-hydroxy-4-ethylamino-6-isopropylamino-1,3,5-triazine; formula C8H15N5O——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S21
Number of atrazine degradation intermediates/products13 intermediates and transformation products detected except for atrazine——Text
Exact Reported
10 · 3.6 Degradation pathways analysis of atrazine · Table S2; Fig. 7
ODIT M+H+ m/zODIT m/z=212.1136; 2-hydroxy-4-acetamido-6-isopropylamino-triazine; formula C8H13N5O2——SI Table
Exact Reported
6-8 and 18-24 · Table S2; MS/MS product ion spectra · Table S2; Fig. S24

Catalytic ozonation parameter study

Co/Ni-MOF brown powder · Powder

Co/Ni-MOF/O3 system varying initial pH, catalyst dosage, ozone concentration and atrazine concentration.

Atmosphere
O3 generated from pure O2
Geometry
250 mL three-necked flask
Context
target bimetallic sample
Measurement source
5-7 · 3.3 Influences of reaction parameters · Fig. 3
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Pseudo-first-order fit R2 at initial atrazine 10 mg L-10.991——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Rate constant at initial atrazine 10 mg L-10.288 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Atrazine removal at initial atrazine 10 mg L-193.9%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d
Pseudo-first-order fit R2 at initial atrazine 20 mg L-10.996——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Rate constant at initial atrazine 20 mg L-10.197 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Atrazine removal at initial atrazine 20 mg L-187.3%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d
Pseudo-first-order fit R2 at initial atrazine 30 mg L-10.991——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Rate constant at initial atrazine 30 mg L-10.116 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Atrazine removal at initial atrazine 30 mg L-168.4%—k = 0.116 min-1; R2 = 0.991Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d
Pseudo-first-order fit R2 at initial atrazine 5 mg L-10.985——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Rate constant at initial atrazine 5 mg L-10.358 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d inset
Atrazine removal at initial atrazine 5 mg L-1Marked as a best value within this paper98.2%—k = 0.358 min-1; R2 = 0.985Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3d
Atrazine adsorption at catalyst dosage 0.2 g L-15.4%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Pseudo-first-order fit R2 at catalyst dosage 0.2 g L-10.99——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Rate constant at catalyst dosage 0.2 g L-10.266 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Atrazine removal at catalyst dosage 0.2 g L-193.1%—k = 0.266 min-1; R2 = 0.990Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Atrazine adsorption at catalyst dosage 0.5 g L-18.1%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Pseudo-first-order fit R2 at catalyst dosage 0.5 g L-10.991——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Rate constant at catalyst dosage 0.5 g L-10.288 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Atrazine removal at catalyst dosage 0.5 g L-1Marked as a best value within this paper93.9%—k = 0.288 min-1; R2 = 0.991Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Atrazine adsorption at catalyst dosage 0.7 g L-112.9%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Pseudo-first-order fit R2 at catalyst dosage 0.7 g L-10.99——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Rate constant at catalyst dosage 0.7 g L-10.191 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Atrazine removal at catalyst dosage 0.7 g L-188.3%—k = 0.191 min-1; R2 = 0.990Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Atrazine adsorption at catalyst dosage 1.0 g L-114.7%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Pseudo-first-order fit R2 at catalyst dosage 1.0 g L-10.995——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Rate constant at catalyst dosage 1.0 g L-10.173 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b inset
Atrazine removal at catalyst dosage 1.0 g L-185.4%—k = 0.173 min-1; R2 = 0.995Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3b
Pseudo-first-order fit R2 at ozone concentration 12 mg L-10.99——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Rate constant at ozone concentration 12 mg L-10.336 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Atrazine removal at ozone concentration 12 mg L-195.9%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c
Pseudo-first-order fit R2 at ozone concentration 15 mg L-10.993——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Rate constant at ozone concentration 15 mg L-10.395 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Atrazine removal at ozone concentration 15 mg L-1Marked as a best value within this paper97.8%—k = 0.395 min-1; R2 = 0.993Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c
Pseudo-first-order fit R2 at ozone concentration 5 mg L-10.981——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Rate constant at ozone concentration 5 mg L-10.154 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Atrazine removal at ozone concentration 5 mg L-179.1%—k = 0.154 min-1; R2 = 0.981Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c
Pseudo-first-order fit R2 at ozone concentration 8 mg L-10.991——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Rate constant at ozone concentration 8 mg L-10.288 min-1——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c inset
Atrazine removal at ozone concentration 8 mg L-193.9%——Text
Exact Reported
7 · 3.3 Influences of reaction parameters · Fig. 3c
Atrazine adsorption at initial pH 316.9%——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Pseudo-first-order fit R2 at initial pH 30.815——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Rate constant at initial pH 30.022 min-1——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Atrazine removal at initial pH 329.8%—k = 0.022 min-1; R2 = 0.815Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Atrazine adsorption at initial pH 513.5%——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Pseudo-first-order fit R2 at initial pH 50.997——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Rate constant at initial pH 50.169 min-1——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Atrazine removal at initial pH 584.0%—k = 0.169 min-1; R2 = 0.997Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Atrazine adsorption at initial pH 78.1%——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Pseudo-first-order fit R2 at initial pH 70.991——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Rate constant at initial pH 70.288 min-1——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Atrazine removal at initial pH 793.9%—k = 0.288 min-1; R2 = 0.991Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Atrazine adsorption at initial pH 97.6%——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a
Pseudo-first-order fit R2 at initial pH 90.968——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Rate constant at initial pH 90.328 min-1——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a inset
Atrazine removal at initial pH 9Marked as a best value within this paper95.7%—k = 0.328 min-1; R2 = 0.968Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. 3a

Recycling catalytic ozonation and metal leaching

Co/Ni-MOF brown powder · Powder

Four consecutive Co/Ni-MOF catalytic ozonation tests under identical base conditions; catalysts filtered, rinsed, dried at 50 C overnight between runs.

Atmosphere
O3 generated from pure O2
Geometry
250 mL three-necked flask
Context
target bimetallic sample after reuse
Measurement source
7-8 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4; Fig. S9; Fig. S10
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Dissolved Co fraction of catalyst metal mass after first run2.21-2.59%——Text
Range
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4d
Dissolved Co after first run1.21-1.42 mg L-1—rangeText
Range
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4d
Dissolved Ni fraction of catalyst metal mass after first run1.57-1.85%——Text
Range
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4d
Dissolved Ni after first run1.24-1.46 mg L-1—rangeText
Range
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4d
Pseudo-first-order fit R2 in reuse-series run 10.991——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Rate constant in reuse-series run 10.288 min-1——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Atrazine removal in first reuse-series runMarked as a best value within this paper93.9%—k = 0.288 min-1; R2 = 0.991Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4a-b
Pseudo-first-order fit R2 in reuse-series run 20.992——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Rate constant in reuse-series run 20.281 min-1——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Atrazine removal in reuse-series run 293.6%——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4a
Pseudo-first-order fit R2 in reuse-series run 30.993——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Rate constant in reuse-series run 30.274 min-1——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Atrazine removal in reuse-series run 393.2%——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4a
Pseudo-first-order fit R2 in reuse-series run 40.991——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Rate constant in reuse-series run 40.272 min-1——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4b
Atrazine removal in fourth reuse-series run92.9%—k = 0.272 min-1; R2 = 0.991Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4a-b
Post-reuse structural retentionXPS showed no significant variation; FTIR characteristic peaks retained; XRD similar peaks retained but weak peaks disappeared.——Text
Qualitative
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. S9; Fig. S10
TOC removal in reuse-series run 128.2%——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4c
TOC removal in reuse-series run 227.5%——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4c
TOC removal in reuse-series run 326.5%——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4c
TOC removal in reuse-series run 425.0%——Text
Exact Reported
7 · 3.4 Reusability and stability of Co/Ni-MOF · Fig. 4c

Zeta potential

Co/Ni-MOF brown powder · Powder

Zetasizer Nano ZS; Co/Ni-MOF suspension measured at pH 2, 3, 5, 7 and 9.

Atmosphere
aqueous suspension
Context
target bimetallic sample
Measurement source
6 · 3.3 Influences of reaction parameters · Fig. S8
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Zeta potential at pH 2-4.21 mV——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. S8
Zeta potential at pH 3-11.33 mV——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. S8
Zeta potential at pH 5-19.67 mV——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. S8
Zeta potential at pH 7-21.53 mV——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. S8
Zeta potential at pH 9-30.20 mV——Text
Exact Reported
6 · 3.3 Influences of reaction parameters · Fig. S8