Showing 1,901 - 1,920 results of 123,048 for search '(( 2 d decrease ) OR ( 5 ((((we decrease) OR (nn decrease))) OR (a decrease)) ))', query time: 2.08s Refine Results
  1. 1901
  2. 1902
  3. 1903
  4. 1904
  5. 1905

    S5 Fig - by Cynthia Alsayyah (18452506)

    Published 2024
    “…<b>(D and E)</b> PerMit contacts in <i>cat2Δ</i> and <i>cit2Δ</i> cells. …”
  6. 1906
  7. 1907
  8. 1908

    <i>tho2</i> and <i>hpr1</i> selectively decrease the expression level of Rif1p. by Tai-Yuan Yu (328952)

    Published 2013
    “…<p>(<b>A</b>) The Rif1p protein level is decreased in <i>tho2</i> and <i>hpr1</i> cells. …”
  9. 1909
  10. 1910

    Fenretinide decreases levels of PAX3/FOXO1 and its target genes in aRMS cell lines. by David Herrero Martín (286820)

    Published 2013
    “…D) Fenretinide did not decrease mRNA levels of FOXO1 in aRMS cells. qRT–PCR was carried out after treatment with an IC<sub>50</sub> concentration of fenretinide during different time points (24–48–72 hours). …”
  11. 1911

    Crystal structures of Triosephosphate Isomerases from <i>Taenia solium</i> and <i>Schistosoma mansoni</i> provide insights for vaccine rationale and drug design against helminth pa... by Pedro Jimenez-Sandoval (831603)

    Published 2020
    “…SmTPI, but not TsTPI, habors a sole solvent exposed cysteine (SmTPI-S230) and alterations in this residue decrease catalysis. …”
  12. 1912

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  13. 1913

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  14. 1914

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  15. 1915

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  16. 1916

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  17. 1917

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  18. 1918

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  19. 1919

    Microscopic Movement of Slow-Diffusing Nanoparticles in Cylindrical Nanopores Studied with Three-Dimensional Tracking by Luyang Zhao (1903252)

    Published 2016
    “…Under two model conditions, particles are retained much longer inside the pores: (1) increased solvent viscosity, which slows down the particle throughout the whole pore, and (2) increased pore wall affinity, which slows down the particle only at the wall. …”
  20. 1920