Showing 12,061 - 12,080 results of 102,654 for search '(( 50 ((nn decrease) OR (mean decrease)) ) OR ( 5 ((we decrease) OR (a decrease)) ))', query time: 1.29s Refine Results
  1. 12061
  2. 12062

    Data of GO analysis. by Haoting Wang (16952764)

    Published 2024
    “…Here, we generated KO mice of other <i>Garins</i>, namely <i>Garin2</i>, <i>Garin3</i>, <i>Garin4</i>, <i>Garin5a</i>, and <i>Garin5b</i> (<i>Garin2-5b</i>). …”
  3. 12063

    Sequences used for phylogenetic analyses. by Haoting Wang (16952764)

    Published 2024
    “…Here, we generated KO mice of other <i>Garins</i>, namely <i>Garin2</i>, <i>Garin3</i>, <i>Garin4</i>, <i>Garin5a</i>, and <i>Garin5b</i> (<i>Garin2-5b</i>). …”
  4. 12064
  5. 12065

    Literacy and School Attendance: A Recent History by RISE Admin (13033830)

    Published 2023
    “…<p dir="ltr">A recent empirical paper by Le Nestour, Moscoviz, and Sandefur analyzes long-term literacy trends among women who completed Grade 5 or higher. …”
  6. 12066

    Digital Microfluidic Platform Based on Printed Circuit Board for Affinity Evaluation of Mertansine Aptamers by Dongliu Xiang (10688647)

    Published 2025
    “…The dissociation constants (<i>K</i><sub>d</sub>) of the two aptamers are 70.9 ± 8.5 nM and 43.6 ± 21.6 nM, respectively. Compared with manual methods, the digital microfluidic platform not only reduced the time for a single determination from 105 to 45 min but also significantly decreased the reagent consumption from 1280 to 30.72 μL. …”
  7. 12067
  8. 12068

    A Multiscale, Mechanism-Driven, Dynamic Model for the Effects of 5α-Reductase Inhibition on Prostate Maintenance by Michael G. Zager (138879)

    Published 2012
    “…This results in decreased cell proliferation, fluid production and 5aR expression as well as increased apoptosis in the ventral prostate. …”
  9. 12069

    The distribution of TH+ cells in the rostrocaudal and mediolateral axis is altered in <i>Wnt5a−/−</i> mice. by Emma R. Andersson (269983)

    Published 2008
    “…However, at E12.5 (F) and E14.5 (G) an altered distribution with a decrease in the number of TH+ cells in anterior levels and an increase in medial levels was seen (Two way ANOVA, for level and genotype, P = 0.0016 at E12.5, P<0.0001 at E14.5, N = 4). …”
  10. 12070
  11. 12071

    Electrospinning Nonspinnable Sols to Ceramic Fibers and Springs by Shiling Dong (14855228)

    Published 2024
    “…However, the addition of polymers to the spinning solution makes the process more complex, increases the processing time, and results in porous mechanically weak ceramic fibers. Herein, we develop a coelectrospinning technique, where a nonspinnable sol (<10 mPa s) consisting of only the ceramic precursor(s) and solvent(s) is encapsulated inside a polymeric shell, forming core–shell precursor fibers that are further calcined into ceramic fibers with reduced porosity, decreased surface defects, uniform crystal packing, and controlled diameters. …”
  12. 12072

    Electrospinning Nonspinnable Sols to Ceramic Fibers and Springs by Shiling Dong (14855228)

    Published 2024
    “…However, the addition of polymers to the spinning solution makes the process more complex, increases the processing time, and results in porous mechanically weak ceramic fibers. Herein, we develop a coelectrospinning technique, where a nonspinnable sol (<10 mPa s) consisting of only the ceramic precursor(s) and solvent(s) is encapsulated inside a polymeric shell, forming core–shell precursor fibers that are further calcined into ceramic fibers with reduced porosity, decreased surface defects, uniform crystal packing, and controlled diameters. …”
  13. 12073

    Electrospinning Nonspinnable Sols to Ceramic Fibers and Springs by Shiling Dong (14855228)

    Published 2024
    “…However, the addition of polymers to the spinning solution makes the process more complex, increases the processing time, and results in porous mechanically weak ceramic fibers. Herein, we develop a coelectrospinning technique, where a nonspinnable sol (<10 mPa s) consisting of only the ceramic precursor(s) and solvent(s) is encapsulated inside a polymeric shell, forming core–shell precursor fibers that are further calcined into ceramic fibers with reduced porosity, decreased surface defects, uniform crystal packing, and controlled diameters. …”
  14. 12074

    Electrospinning Nonspinnable Sols to Ceramic Fibers and Springs by Shiling Dong (14855228)

    Published 2024
    “…However, the addition of polymers to the spinning solution makes the process more complex, increases the processing time, and results in porous mechanically weak ceramic fibers. Herein, we develop a coelectrospinning technique, where a nonspinnable sol (<10 mPa s) consisting of only the ceramic precursor(s) and solvent(s) is encapsulated inside a polymeric shell, forming core–shell precursor fibers that are further calcined into ceramic fibers with reduced porosity, decreased surface defects, uniform crystal packing, and controlled diameters. …”
  15. 12075
  16. 12076
  17. 12077
  18. 12078
  19. 12079
  20. 12080