Showing 13,421 - 13,440 results of 48,561 for search '(( a ((mean decrease) OR (linear decrease)) ) OR ( a ((largest decrease) OR (greatest decrease)) ))', query time: 0.81s Refine Results
  1. 13421
  2. 13422
  3. 13423
  4. 13424

    Simulation study with normal and depressed LV systolic function. by Keita Saku (714525)

    Published 2016
    “…The rate of decrease in PVA by partial LVAD support (baseline PVA to that of “a” and “b”) is much lower in depressed LV (-27%) than in normal LV (-54%).…”
  5. 13425
  6. 13426

    Comparison of COCC. by Hazoor Ahmad (17508777)

    Published 2023
    “…As compared to state of the art, we achieve decreased sensation error in terms of small root-mean-square difference (70%, 61%, and 84% decrease in case of longitudinal acceleration, lateral acceleration, and yaw velocity, respectively) and improved coefficient of cross-correlation (3% and 1% increase in case of longitudinal and lateral acceleration, respectively).…”
  7. 13427

    Comparison of maximum angle. by Hazoor Ahmad (17508777)

    Published 2023
    “…As compared to state of the art, we achieve decreased sensation error in terms of small root-mean-square difference (70%, 61%, and 84% decrease in case of longitudinal acceleration, lateral acceleration, and yaw velocity, respectively) and improved coefficient of cross-correlation (3% and 1% increase in case of longitudinal and lateral acceleration, respectively).…”
  8. 13428

    Comparison of maximum displacement. by Hazoor Ahmad (17508777)

    Published 2023
    “…As compared to state of the art, we achieve decreased sensation error in terms of small root-mean-square difference (70%, 61%, and 84% decrease in case of longitudinal acceleration, lateral acceleration, and yaw velocity, respectively) and improved coefficient of cross-correlation (3% and 1% increase in case of longitudinal and lateral acceleration, respectively).…”
  9. 13429

    Comparison of RMSD. by Hazoor Ahmad (17508777)

    Published 2023
    “…As compared to state of the art, we achieve decreased sensation error in terms of small root-mean-square difference (70%, 61%, and 84% decrease in case of longitudinal acceleration, lateral acceleration, and yaw velocity, respectively) and improved coefficient of cross-correlation (3% and 1% increase in case of longitudinal and lateral acceleration, respectively).…”
  10. 13430
  11. 13431
  12. 13432
  13. 13433

    Role of RNA binding proteins and relative single-cell populations in modulating <i>SERPINA1</i> APA. by Lela Lackey (815515)

    Published 2021
    “…<p>A) Two-dimensional volcano plot of endogenous shRNA distal ratio in <i>SERPINA1</i> (y-axis) as a function of log<sub>2</sub> differential expression fold change (log<sub>2</sub>(DE<sub>FC</sub>)) in LTRC primary lung tissue from 376 COPD cases and 267 controls for the 224 corresponding RNA binding proteins. …”
  14. 13434
  15. 13435

    Fungal dynamics affected by increasing POM input on the soild/pore interface. by Ruth E. Falconer (741245)

    Published 2015
    “…<p>a) non-linear response in the CO<sub><b>2</b></sub> evolution to POM input at end of the simulation (340 hours) with N = 5 (standard deviation is represented by error bars). …”
  16. 13436
  17. 13437

    Co-ordinated spatial propagation of blood plasma clotting and fibrinolytic fronts - Fig 1 by Ansar S. Zhalyalov (4233721)

    Published 2017
    “…<p>Pictures of fibrin clot growth in the absence of plasminogen activators (2 (A1), 10 (A2) and 20 (A3) minutes after the clotting onset) and clot growth and lysis in the presence of 30 nmol/L of TPA (2 (B1), 10 (B2) and 20 (B3) minutes after the clotting onset). …”
  18. 13438
  19. 13439

    Enhanced offspring predisposition to steatohepatitis with maternal high-fat diet is associated with epigenetic and microbiome alterations by Umesh D. Wankhade (362245)

    Published 2017
    “…Maternal HFD also influenced gut microbiome profiles in offspring leading to a decrease in α-diversity. Linear regression analysis revealed association between serum ALT levels and <i>Coprococcus</i>, <i>Coriobacteriacae</i>, <i>Helicobacterioceae</i> and <i>Allobaculum</i>.…”
  20. 13440