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values decrease » values increased (Expand Search), largest decrease (Expand Search)
larger decrease » marked decrease (Expand Search)
rate increased » greater increase (Expand Search)
_ larger » _ large (Expand Search), _ largest (Expand Search), a large (Expand Search)
i rate » _ rate (Expand Search), i race (Expand Search), a rate (Expand Search)
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…In a system involving a surface-active reactant, rate augmentation is driven by the synergy between insulator-confined reactant enrichment and insulator-induced current crowding, whereas only the latter and possibly localized decrease in <i>iR</i> drop near the insulator are relevant in a system composed of non-surface-active species. …”
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Mechanism of Peroxynitrite Interaction with Ferric <i>M. tuberculosis</i> Nitrobindin: A Computational Study
Published 2024“…The value of the second-order rate constant of Nbs increases as the pH decreases; this suggests that Nb(III) preferentially reacts with peroxynitrous acid (ONOOH), although ONOO<sup>–</sup> is more nucleophilic. …”
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Mechanism of Peroxynitrite Interaction with Ferric <i>M. tuberculosis</i> Nitrobindin: A Computational Study
Published 2024“…The value of the second-order rate constant of Nbs increases as the pH decreases; this suggests that Nb(III) preferentially reacts with peroxynitrous acid (ONOOH), although ONOO<sup>–</sup> is more nucleophilic. …”
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Mean value of the longitudinal scaling exponent as a function of the growth rate threshold <i>b</i><sub><i>c</i></sub>.
Published 2020“…The mean value of decreases drastically as <i>b</i><sub><i>c</i></sub> increases. …”