Showing 13,281 - 13,300 results of 13,553 for search '(( a ((teer decrease) OR (linear decrease)) ) OR ( a ((largest decrease) OR (greatest decrease)) ))', query time: 0.62s Refine Results
  1. 13281

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  2. 13282

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  3. 13283

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  4. 13284

    Two-Dimensional Growth Rate Control of l‑Phenylalanine Crystal by Laser Trapping in Unsaturated Aqueous Solution by Ken-ichi Yuyama (1268838)

    Published 2016
    “…As the critical phenomenon underlying the crystal growth, we propose that a dense domain consisting of a large number of the liquid-like clusters is formed prior to the crystallization. …”
  5. 13285

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  6. 13286

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  7. 13287

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  8. 13288

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  9. 13289

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  10. 13290

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  11. 13291

    Two-Dimensional Growth Rate Control of l‑Phenylalanine Crystal by Laser Trapping in Unsaturated Aqueous Solution by Ken-ichi Yuyama (1268838)

    Published 2016
    “…As the critical phenomenon underlying the crystal growth, we propose that a dense domain consisting of a large number of the liquid-like clusters is formed prior to the crystallization. …”
  12. 13292

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  13. 13293

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  14. 13294

    Crystallization of Active Emulsion by Boris Kichatov (9609078)

    Published 2021
    “…Crystallization proceeds via condensation of droplets from the gas phase through the formation of liquid as an intermediate phase, which covers the crystal surface with a thin layer. Inside the liquid layer the bond-orientational order of droplets decreases from the crystal surface toward the gas phase. …”
  15. 13295

    Expression levels and trends for miRNAs detected in maize grain filling. by Xining Jin (391364)

    Published 2015
    “…<p><sup>a</sup>, miRNAs whose abundance increased linearly from 17 to 28 DAP;</p><p><sup>b</sup>, miRNAs whose abundance decreased linearly from 17 to 28 DAP;</p><p><sup>c</sup>, miRNAs up-regulated at 25 DAP;</p><p><sup>d</sup>, miRNAs down-regulated at 25 DAP;</p><p><sup>e</sup>, miRNAs up-regulated at 22 DAP;</p><p><sup>f</sup>, miRNAs down-regulated at 22 DAP;</p><p><sup>g</sup>, miRNAs that had irregular changes.…”
  16. 13296

    Table_1_Nitrogen and Phosphorous Content in Blue Mussels (Mytilus spp.) Across the Baltic Sea.XLSX by Anna-Lucia Buer (6205790)

    Published 2020
    “…We observed that nutrient content was not linearly correlated to salinity, but if categorized, decreased at higher salinities. …”
  17. 13297

    Data_Sheet_1_Saturated Dissolved Oxygen Concentration in in situ Fragmentation Bioleaching of Copper Sulfide Ores.docx by Ming-Qing Huang (10719069)

    Published 2022
    “…The conjoint effect of the five variables on oxygen solubility showed that pH was linearly negatively related to oxygen solubility. Additionally, a mathematical model was also proposed to predict the saturated dissolved oxygen concentration in in situ fragmentation bioleaching of copper sulfide ores. …”
  18. 13298

    Concept and procedure of the inverse reinforcement learning (IRL)-based approach. by Shoichiro Yamaguchi (5166356)

    Published 2018
    “…<p><b>(A)</b> Reinforcement learning represents a forward problem, in which a behavioral strategy is optimized to maximize the cumulative reward given as a series of states and rewards. …”
  19. 13299

    DataSheet_1_Integrated use of phosphorus fertilizer and farmyard manure improves wheat productivity by improving soil quality and P availability in calcareous soil under subhumid c... by Aftab Jamal (14490848)

    Published 2023
    “…</p>Results and Discussion<p>Soil organic matter increased (30-72%) linearly for both fertilizer and FYM, whereas pH decreased (0.1-0.3 units) with fertilizer only. …”
  20. 13300

    Kinetics of Ldt<sub>fm</sub> inactivation by imipenem, ceftriaxone, and ampicillin. by Sébastien Triboulet (430444)

    Published 2013
    “…Regression analysis was performed with equation F<sub>t</sub> = F<sub>eq</sub>+ΔF e<sup>−<i>k</i>obst</sup> in which F<sub>eq</sub> and F<sub>t</sub> are the fluorescence intensities at equilibrium and at time t, respectively, ΔF is the difference between fluorescence intensity at time = 0 and at equilibrium, t is time, and <i>k</i><sub>obs</sub> is a constant. The resulting rate constants (<i>k</i><sub>obs</sub>) increased linearly with the drug concentration (E) and the slope provided an estimate of the efficiency of enzyme acylation (F).…”