Primary study2026
In-situ growth of high-crystallinity M3(hexaaminotriphenylene)2 (M = Co, Ni) thin film for field-effect transistor-based glucose biosensor
Tan P., Shen S., Luo Y. et al. · Chinese Chemical Letters · 2026
Reported here: Co/Ni-HITP
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Co/Ni–HITP family
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5primary papers
18material records
30linked samples
84linked measurements
257linked results
2020–2026publication span
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- Several formulas or formula descriptions are reported
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Spectroscopy5 papers15 measurements · 48 resultsMicroscopy Morphology4 papers9 measurements · 18 resultsDiffraction Structure3 papers11 measurements · 21 resultsElectrical Transport3 papers12 measurements · 15 resultsPorosity3 papers3 measurements · 6 resultsSensing Application3 papers19 measurements · 108 resultsComputational Modelling2 papers2 measurements · 11 resultsElectrochemistry Application2 papers9 measurements · 16 resultsOther2 papers4 measurements · 14 results
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Primary study2025
A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
Yu H., Xu G., Liu Y. et al. · Microchemical Journal · 2025
Reported here: Au-Thi-Au@C-Ni1.5Co1.5(HITP)2 · C-Ni1.5Co1.5(HITP)2 · CP1 bioconjugate/C-Ni1.5Co1.5(HITP)2 aptasensor · Ni0.6Co2.4(HITP)2 · Ni2.4Co0.6(HITP)2
Primary study2025
Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Wang Y., Wang J., Zeng J. et al. · Journal of Materials Chemistry A · 2025
Reported here: CoNi-HITP
Primary study2024
High-Performance H2S Sensors to Detect SF6 Leakage
Zhao X., Jiang S., Zhang Z. et al. · ACS Sensors · 2024
Reported here: Co0.6Ni2.4(HITP)2 · Co1.2Ni1.8(HITP)2 · Co1.5Ni1.5(HITP)2 · Co1.8Ni1.2(HITP)2 · Co2.4Ni0.6(HITP)2 · CoxNi3-x(HITP)2 mixed-metal conductive MOF family
Primary study2020
Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Chen T., Dou J.-H., Yang L. et al. · Journal of the American Chemical Society · 2020
Reported here: (Co0.60Ni2.40)(HITP)2 · (Co1.14Ni1.86)(HITP)2 · (Co1.54Ni1.45)(HITP)2 · (Co1.83Ni1.17)(HITP)2 · (Co2.38Ni0.62)(HITP)2
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Show 18 material identity records
| Paper and reported name | Formula and components | Structure context | Source |
|---|---|---|---|
| Co/Ni-HITP2026 · In-situ growth of high-crystallinity M3(hexaaminotriphenylene)2 (M = Co, Ni) thin film for field-effect transistor-based glucose biosensor | M3(HITP)2, M = Co, NiCo and Ni bimetallic centres · 2,3,6,7,10,11-hexaaminotriphenylene (HITP) | 2D · PristineBimetallic conductive HITP MOF thin film; XRD peaks attributed to M3(HITP)2 with nanosheet film morphology. | 1 · Abstract |
| Au-Thi-Au@C-Ni1.5Co1.5(HITP)22025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor | Au/Thi/Au@Ni1.5Co1.5(HITP)2Ni/Co MOF nodes plus Au nanoparticles · HITP; thionine signal molecule | 2D · CompositeComposite signal probe formed by loading AuNPs and thionine onto C-Ni1.5Co1.5(HITP)2 through Au-S binding. | 6 · 3.3 · Fig. 3A-B |
| C-Ni1.5Co1.5(HITP)22025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor | Ni1.5Co1.5(HITP)2Ni/Co mixed metal nodes · HITP | 2D · PristineConductive bimetallic HITP framework selected as the optimal signal-amplification material. | 5 · 3.2 · Fig. 2 |
| CoNi-HITP2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media | CoNi-HITP mixed-metal HITP frameworkCo and Ni · HITP | 2D · PristineBimetallic HITP conductive MOF nanosheets with Co and Ni uniformly distributed; Co/Ni atomic ratio 1.82 by ICP. | p004 / 42276 · Results and discussion · Fig. 1l |
| CP1 bioconjugate/C-Ni1.5Co1.5(HITP)2 aptasensor2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor | CP1/Au-Thi-Au@Ni1.5Co1.5(HITP)2 on DNA-modified Au/GCENi/Co MOF nodes and Au electrodeposited/AuNP components · HITP plus DNA aptamer/probe layers and BSA | unknown · CompositeElectrochemical aptasensor assembly using the conductive bimetallic MOF composite as signal enhancer. | 3 · 2.3 · Scheme 1B |
| Ni0.6Co2.4(HITP)22025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor | Ni0.6Co2.4(HITP)2Ni/Co mixed metal nodes with excess Co · HITP | 2D · PristineHigh-Co member of the NixCo3-x(HITP)2 series; main text states excess Co disrupts the Ni3(HITP)2 structure. | 4 · 3.1 · Fig. 1 |
| Ni2.4Co0.6(HITP)22025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor | Ni2.4Co0.6(HITP)2Ni/Co mixed metal nodes · HITP | 2D · PristineCo-doped Ni3(HITP)2 analogue; characteristic Ni3(HITP)2 PXRD peaks retained according to the main-text summary of Fig. S1. | 3 · 3.1 · Fig. 1A |
| Co0.6Ni2.4(HITP)22024 · High-Performance H2S Sensors to Detect SF6 Leakage | Co0.6Ni2.4(HITP)2Co/Ni mixed nodes, nominal Co:Ni = 1:4 · HITP | 2D · PristineMixed-metal 2D CoxNi3-x(HITP)2 phase. | 22 · Table S1 · Table S1 |
| Co1.2Ni1.8(HITP)22024 · High-Performance H2S Sensors to Detect SF6 Leakage | Co1.2Ni1.8(HITP)2Co/Ni mixed nodes, nominal Co:Ni = 2:3 · HITP | 2D · PristineMixed-metal 2D CoxNi3-x(HITP)2 phase. | 22 · Table S1 · Table S1 |
| Co1.5Ni1.5(HITP)22024 · High-Performance H2S Sensors to Detect SF6 Leakage | Co1.5Ni1.5(HITP)2Co/Ni mixed nodes, nominal Co:Ni = 1:1 · HITP | 2D · PristineMixed-metal 2D CoxNi3-x(HITP)2 phase. | 22 · Table S1 · Table S1 |
| Co1.8Ni1.2(HITP)22024 · High-Performance H2S Sensors to Detect SF6 Leakage | Co1.8Ni1.2(HITP)2Co/Ni mixed nodes, optimal nominal Co:Ni = 3:2 · HITP | 2D · PristineGenuine bimetallic 2D layered honeycomb phase; EDS mapping shows homogeneous C, N, Co and Ni distribution. | 3 · 2.1. Sample Preparation and Characterization · Figure 1 |
| Co2.4Ni0.6(HITP)22024 · High-Performance H2S Sensors to Detect SF6 Leakage | Co2.4Ni0.6(HITP)2Co/Ni mixed nodes, nominal Co:Ni = 4:1 · HITP | 2D · PristineMixed-metal 2D CoxNi3-x(HITP)2 phase. | 22 · Table S1 · Table S1 |
| CoxNi3-x(HITP)2 mixed-metal conductive MOF family2024 · High-Performance H2S Sensors to Detect SF6 Leakage | CoxNi3-x(HITP)2Co and Ni square-planar metal nodes · 2,3,6,7,10,11-hexaiminotriphenylene (HITP) | 2D · PristineLayered 2D honeycomb lattice; metal atoms coordinated by four nitrogen atoms from the ligand and stacked through pi-pi interactions. | 2 · 2.1. Sample Preparation and Characterization · Figure S1 |
| (Co0.60Ni2.40)(HITP)22020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys | Co0.60Ni2.40(HITP)2Co0.60 · HITP = 2,3,6,7,10,11-hexaiminotriphenylene | 2D · PristineLayered electrically conducting MOF; synchrotron PXRD Pawley refinements fit orthorhombic Cmcm for pure M3(HITP)2; alloys are isostructural solid solutions following Vegard-type trends. | 12369-12370 · Results and Discussion · Figures 2b, 5; Table S5 |
| (Co1.14Ni1.86)(HITP)22020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys | Co1.14Ni1.86(HITP)2Co1.14 · HITP = 2,3,6,7,10,11-hexaiminotriphenylene | 2D · PristineLayered electrically conducting MOF; synchrotron PXRD Pawley refinements fit orthorhombic Cmcm for pure M3(HITP)2; alloys are isostructural solid solutions following Vegard-type trends. | 12369-12370 · Results and Discussion · Figures 2b, 5; Table S5 |
| (Co1.54Ni1.45)(HITP)22020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys | Co1.54Ni1.45(HITP)2Co1.54 · HITP = 2,3,6,7,10,11-hexaiminotriphenylene | 2D · PristineLayered electrically conducting MOF; synchrotron PXRD Pawley refinements fit orthorhombic Cmcm for pure M3(HITP)2; alloys are isostructural solid solutions following Vegard-type trends. | 12369-12370 · Results and Discussion · Figures 2b, 5; Table S5 |
| (Co1.83Ni1.17)(HITP)22020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys | Co1.83Ni1.17(HITP)2Co1.83 · HITP = 2,3,6,7,10,11-hexaiminotriphenylene | 2D · PristineLayered electrically conducting MOF; synchrotron PXRD Pawley refinements fit orthorhombic Cmcm for pure M3(HITP)2; alloys are isostructural solid solutions following Vegard-type trends. | 12369-12370 · Results and Discussion · Figures 2b, 5; Table S5 |
| (Co2.38Ni0.62)(HITP)22020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys | Co2.38Ni0.62(HITP)2Co2.38 · HITP = 2,3,6,7,10,11-hexaiminotriphenylene | 2D · PristineLayered electrically conducting MOF; synchrotron PXRD Pawley refinements fit orthorhombic Cmcm for pure M3(HITP)2; alloys are isostructural solid solutions following Vegard-type trends. | 12369-12370 · Results and Discussion · Figures 2b, 5; Table S5 |