Sensing Application — A mixed-organic ligands Ru(bpy)32+@Zn mMOFs-NH2 nanoreactors integrated co-reaction accelerator and morphologic regulator for the electrochemiluminescence detection of ATP

Measurement evidence

Sensing Application

A mixed-organic ligands Ru(bpy)32+@Zn mMOFs-NH2 nanoreactors integrated co-reaction accelerator and morphologic regulator for the electrochemiluminescence detection of ATP · Xie Y., Wang X., Yan Z. et al. · Talanta · 2025 · 127196

8 measurement groups · 37 results

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

ECL optimisation of AP concentration

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

50 mM K2S2O8; 100 nM ATP; three parallel measurements

Geometry
ECL biosensor
Context
application electrode
Measurement source
6 · 3.4 · Fig. S2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Optimal AP concentrationMarked as a best value within this paper2.0 uMText
Exact Reported
6 · 3.4 · Fig. S2

ECL ATP calibration

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

ATP concentrations 5, 10, 20, 50, 100, 500, 1000 nM; 50 mM K2S2O8

Geometry
ECL biosensor
Context
application electrode
Measurement source
6 · 3.5 · Fig. 5A,B
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Calibration R2R2 = 0.993Text
Exact Reported
7 · 3.5 · Fig. 5B
ATP linear calibration range5 nM to 1000 nMText
Exact Reported
7 · 3.5 · Fig. 5B
Calibration slopeI = 3984.2 lgC + 2645.3Text
Exact Reported
7 · 3.5 · Fig. 5B
ATP detection limitMarked as a best value within this paper1.18 nM1.18 nMText
Exact Reported
7 · 3.5 · Fig. 5B

ECL optimisation of ATP and Ru(bpy)3(2+)@Zn mMOFs-NH2-CP incubation time

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

50 mM K2S2O8; 100 nM ATP; three parallel measurements

Geometry
ECL biosensor
Context
application electrode
Measurement source
7 · 3.4 · Fig. S3 and Fig. S4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Optimal ATP incubation timeMarked as a best value within this paper90 minText
Exact Reported
7 · 3.4 · Fig. S3
Optimal Ru(bpy)3(2+)@Zn mMOFs-NH2-CP incubation timeMarked as a best value within this paper90 minText
Exact Reported
7 · 3.4 · Fig. S4

Clinical serum ATP by ECL compared with ELISA

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

Serum samples from tumour patients; ELISA used as independent validation

Geometry
ECL biosensor
Context
application electrode
Measurement source
7 · 3.6 · Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Patient serum sample 1 ATP by ECLECL 365.9 +/- 5.6 nM; ELISA 374.9 +/- 11.3 nM; relative error -2.4%+/- 5.6 nMTable
Exact Reported
7 · 3.6 · Table 2
Patient serum sample 2 ATP by ECLECL 377.3 +/- 5.8 nM; ELISA 373.3 +/- 18.8 nM; relative error 1.1%+/- 5.8 nMTable
Exact Reported
7 · 3.6 · Table 2
Patient serum sample 3 ATP by ECLECL 363.1 +/- 8.4 nM; ELISA 368.2 +/- 1.3 nM; relative error -1.4%+/- 8.4 nMTable
Exact Reported
7 · 3.6 · Table 2
ECL vs ELISA relative error range-2.4 % to 1.1 %Text
Range
7 · 3.6 · Table 2

ECL selectivity test

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

1000 nM Glu, 1000 nM L-Cys, 1000 nM GSH, 100 nM ATP and mixture

Geometry
ECL biosensor
Context
application electrode
Measurement source
6 · 3.5 · Fig. 5C
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
ATP selectivity ECL responseMarked as a best value within this paperapproximately 10.5k a.u. for 100 nM ATP from Fig. 5Cvisual estimate from bar chartVisual Estimate
Approximate
6 · 3.5 · Fig. 5C
Interferent selectivity ECL responseGlu, GSH and L-Cys bars approximately 2.8k-3.3k a.u.; mixture approximately 9.8k a.u.visual estimates from bar chartVisual Estimate
Approximate
6 · 3.5 · Fig. 5C

ATP recovery in 100-fold diluted serum

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

Non-pathologic human serum diluted 100-fold with PBS and spiked with ATP

Geometry
ECL biosensor
Context
application electrode
Measurement source
7 · 3.6 · Table 1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Serum recovery range90.1 % to 107 %Text
Range
7 · 3.6 · Table 1
Serum recovery RSD range0.1 % to 4.1 %Text
Range
7 · 3.6 · Table 1
Serum sample 1 spiked 100 nM found ATPspiked 100.0 nM; found 104.7 nM; RSD 4.1%; recovery 105%RSD 4.1%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 1 spiked 20 nM found ATPspiked 20.00 nM; found 19.50 nM; RSD 0.1%; recovery 97.5%RSD 0.1%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 1 spiked 50 nM found ATPspiked 50.00 nM; found 47.86 nM; RSD 4.1%; recovery 95.7%RSD 4.1%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 2 spiked 100 nM found ATPspiked 100.0 nM; found 106.9 nM; RSD 2.4%; recovery 107%RSD 2.4%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 2 spiked 20 nM found ATPspiked 20.00 nM; found 19.97 nM; RSD 1.6%; recovery 99.9%RSD 1.6%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 2 spiked 50 nM found ATPspiked 50.00 nM; found 45.09 nM; RSD 3.3%; recovery 90.2%RSD 3.3%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 3 spiked 100 nM found ATPspiked 100.0 nM; found 90.10 nM; RSD 3.9%; recovery 90.1%RSD 3.9%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 3 spiked 20 nM found ATPspiked 20.00 nM; found 20.30 nM; RSD 1.1%; recovery 102%RSD 1.1%Table
Exact Reported
7 · 3.6 · Table 1
Serum sample 3 spiked 50 nM found ATPspiked 50.00 nM; found 45.30 nM; RSD 2.2%; recovery 90.6%RSD 2.2%Table
Exact Reported
7 · 3.6 · Table 1

Repeated ECL scanning stability

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

10 consecutive scanning cycles with 100 nM ATP

Geometry
ECL biosensor
Context
application electrode
Measurement source
6 · 3.5 · Fig. 5D
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Stability cycles10 consecutive scanning cyclesText
Exact Reported
7 · 3.5 · Fig. 5D
Stability RSDMarked as a best value within this paperRSD of 3.6 %Text
Exact Reported
7 · 3.5 · Fig. 5D

Supplementary comparison of analytical methods for ATP

Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode

Table S1 compares linear range and LOD of fluorescence, bioluminescence, aptamer-based, chemiluminescence and ECL methods; includes this work.

Geometry
ECL biosensor comparison table
Context
application electrode; literature comparison
Measurement source
S10 · Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Aptamer-based comparison LOD [4]linear range 1.5e-8 to 4e-3 M; LOD 1.5e-8 M1.5e-8 MSI Table
Exact Reported
S10 · Table S1 · Table S1
Aptamer-based comparison LOD [5]linear range 0 to 2e-6 M; LOD 2.5e-8 M2.5e-8 MSI Table
Exact Reported
S10 · Table S1 · Table S1
Bioluminescence comparison LOD [3]linear range 1.5e-8 to 1e-6 M; LOD 8e-9 M8e-9 MSI Table
Exact Reported
S10 · Table S1 · Table S1
Chemiluminescence comparison LOD [6]linear range 2e-6 to 2e-3 M; LOD 8.43e-8 M8.43e-8 MSI Table
Exact Reported
S10 · Table S1 · Table S1
Chemiluminescence comparison LOD [7]linear range 5e-5 to 2.31e-4 M; LOD 1.85e-7 M1.85e-7 MSI Table
Exact Reported
S10 · Table S1 · Table S1
ECL comparison LOD [8]linear range 8e-9 to 2e-6 M; LOD 7.6e-9 M7.6e-9 MSI Table
Exact Reported
S10 · Table S1 · Table S1
ECL comparison LOD [9]linear range 1e-8 to 1e-4 M; LOD 1.9e-9 M1.9e-9 MSI Table
Exact Reported
S10 · Table S1 · Table S1
ECL comparison LOD [10]Marked as a best value within this paperlinear range 5e-9 to 2.5e-7 M; LOD 1.4e-9 M1.4e-9 MSI Table
Exact Reported
S10 · Table S1 · Table S1
Fluorescence comparison LOD [1]linear range 2e-7 to 1e-5 M; LOD 3.5e-8 M3.5e-8 MSI Table
Exact Reported
S10 · Table S1 · Table S1
Fluorescence comparison LOD [2]linear range 2e-7 to 5e-5 M; LOD 9.3e-8 M9.3e-8 MSI Table
Exact Reported
S10 · Table S1 · Table S1
This work LOD in SI comparison tableMarked as a best value within this paperlinear range 5e-9 to 1e-6 M; LOD 1.18e-9 M1.18e-9 MSI Table
Exact Reported
S10 · Table S1 · Table S1