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larger decrease » marked decrease (Expand Search)
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large decrease » marked decrease (Expand Search), large increases (Expand Search), large degree (Expand Search)
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21401
Sustainable Sea of Internet of Things: Wind Energy Harvesting System for Unmanned Surface Vehicles
Published 2024“…To address these issues, this paper proposes a wind energy harvesting system with a self-regulation strategy based on piezoelectric and electromagnetic effects to achieve state monitoring for unmanned surface vehicles (USVs). …”
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21402
Sustainable Sea of Internet of Things: Wind Energy Harvesting System for Unmanned Surface Vehicles
Published 2024“…To address these issues, this paper proposes a wind energy harvesting system with a self-regulation strategy based on piezoelectric and electromagnetic effects to achieve state monitoring for unmanned surface vehicles (USVs). …”
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21403
Sustainable Sea of Internet of Things: Wind Energy Harvesting System for Unmanned Surface Vehicles
Published 2024“…To address these issues, this paper proposes a wind energy harvesting system with a self-regulation strategy based on piezoelectric and electromagnetic effects to achieve state monitoring for unmanned surface vehicles (USVs). …”
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21404
Sustainable Sea of Internet of Things: Wind Energy Harvesting System for Unmanned Surface Vehicles
Published 2024“…To address these issues, this paper proposes a wind energy harvesting system with a self-regulation strategy based on piezoelectric and electromagnetic effects to achieve state monitoring for unmanned surface vehicles (USVs). …”
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21405
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21406
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21407
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21408
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21409
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21410
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21411
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21412
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21413
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21414
Insulator-on-Conductor Fouling Amplifies Aqueous Electrolysis Rates
Published 2024“…The effect is not limited to reactants of limited water solubility, and, for example, net gold electrodeposition rates are up to 22% larger at fouled than clean electrodes. 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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21415
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21416
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21417
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21418
Density of <i>w</i>AlbA <i>Wolbachia</i> in wild caught <i>Ae</i>. <i>albopictus</i> males from two Italian sites (Crevalcore, CRE, Bologna; Anguillara Sabazia, ANG, Rome) and two...
Published 2015“…CI level is expected to decrease to about 68% in crosses between AR<i>w</i>P females and males with <i>w</i>AlbA density values <0.001 <i>w</i>AlbA/act.…”
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21419
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21420