Showing 11,901 - 11,920 results of 100,888 for search '(( 5 step decrease ) OR ( 5 ((we decrease) OR (((nn decrease) OR (a decrease)))) ))', query time: 1.62s Refine Results
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  5. 11905

    Ecto-5′-Nucleotidase: A Candidate Virulence Factor in <em>Streptococcus sanguinis</em> Experimental Endocarditis by Jingyuan Fan (159998)

    Published 2012
    “…We identified a cell surface ecto-5′-nucleotidase (Nt5e), as a candidate virulence factor. …”
  6. 11906
  7. 11907

    HCV-NS5A protein mediates TGFβ-induced downmodulation of NKG2D. by Damien Sène (237641)

    Published 2010
    “…Mean ± SEM of 3 independent experiments are shown. * P = 0.001. B) NS5A-mediated decrease in NK cell lytic potential. …”
  8. 11908
  9. 11909

    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. …”
  10. 11910

    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. …”
  11. 11911

    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. 11912

    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. …”
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  20. 11920