Showing 561 - 580 results of 2,065 for search '(( i large decrease ) OR ( ct ((values decrease) OR (((largest decrease) OR (larger decrease)))) ))', query time: 0.48s Refine Results
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    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  8. 568

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  9. 569

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  10. 570

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  11. 571

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  12. 572

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  13. 573

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  14. 574

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
  15. 575

    Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

    Published 2025
    “…Under low subcooling (≈1 K), the hydrate crystallites are hollow cylinders, whose diameters decrease with increasing surfactant concentration. …”
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    Monitoring Electrochemical Dynamics through Single-Molecule Imaging of hBN Surface Emitters in Organic Solvents by Eveline Mayner (17767827)

    Published 2024
    “…While advancements in spatial resolution have been made through scanning probe methods, monitoring dynamics over large areas is still challenging, and it would be beneficial to be able to decouple the probe from the electrode itself. …”
  19. 579

    Monitoring Electrochemical Dynamics through Single-Molecule Imaging of hBN Surface Emitters in Organic Solvents by Eveline Mayner (17767827)

    Published 2024
    “…While advancements in spatial resolution have been made through scanning probe methods, monitoring dynamics over large areas is still challenging, and it would be beneficial to be able to decouple the probe from the electrode itself. …”
  20. 580