Showing 66,541 - 66,560 results of 101,136 for search '(( 5 ((wt decrease) OR (nn decrease)) ) OR ( 5 ((a decrease) OR (mean decrease)) ))', query time: 1.66s Refine Results
  1. 66541

    Designation of the experimental setup from Fig 1. by Robin Halamicek (17020918)

    Published 2023
    “…After temperature/humidity variation and autoclave sterilization, melt blown masks were able to retain a filtration efficiency up to over 90% at 0.1 μm contrary to nano-masks showing a decrease down to around 70%. …”
  2. 66542

    Mask models M1–M6 with the corresponding price. by Robin Halamicek (17020918)

    Published 2023
    “…After temperature/humidity variation and autoclave sterilization, melt blown masks were able to retain a filtration efficiency up to over 90% at 0.1 μm contrary to nano-masks showing a decrease down to around 70%. …”
  3. 66543

    S3 File - by Robin Halamicek (17020918)

    Published 2023
    “…After temperature/humidity variation and autoclave sterilization, melt blown masks were able to retain a filtration efficiency up to over 90% at 0.1 μm contrary to nano-masks showing a decrease down to around 70%. …”
  4. 66544

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  5. 66545

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  6. 66546

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  7. 66547

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  8. 66548

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  9. 66549

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  10. 66550

    Catalyst-Free and Rapid Chemical Approach for in Situ Growth of “Chemically Reactive” and Porous Polymeric Coating by Supriya Das (529597)

    Published 2019
    “…Furthermore, the choice of small alkylamines for post-covalent modifications of the “chemically reactive” dip-coating provided superhydrophobicity with a tailored water adhesion. A gradual increase in both roll-off angles, and the contact angle hysteresis (from 5° to 30°) was noted with a decrease in the hydrocarbon tail of selected alkylamines. …”
  11. 66551

    Inhibition of the Hedgehog pathway partially rescues pancreas formation in pancreas with activated β-catenin signaling. by Jose Luis Muñoz-Bravo (3220134)

    Published 2016
    “…<p>Increased Shh expression in the embryonic (E13.5) epithelium of <i>Pdx1-Cre; Ctnnb1</i><sup><i>tm1Mmt/+</i></sup> pancreas (B) compared to control pancreata (A). …”
  12. 66552

    Optimisation of read depth, DNA quantity, and unique alternate observation threshold. by Melinda L. Tursky (20790436)

    Published 2025
    “…<p>A: The detection rate of reference standard variants ranging from 0.0008 to 0.1 VAF at 500-5,000 × depth. …”
  13. 66553
  14. 66554

    GRP silencing on PTEN/AKT/mTOR signaling and MYCN, TWIST, FAK. by Pritha Paul (382332)

    Published 2013
    “…<p>(A) BE(2)-C/Tet/shGRP (+DOX) cells and SH-SY5Y/Tet/shGRP (+DOX) cells had an increase in PTEN expression along with correlative decreases in pAKT and pmTOR expression when compared to control cells (without doxycycline; -DOX). …”
  15. 66555

    Expression levels of the selected genes knocked down by RNAi. by Dong Fang (168743)

    Published 2011
    “…A 160 µg dosage was only used in the <i>krmp</i>-injected group, because the expression did not decrease significantly in the 40 µg dosage-injected group.…”
  16. 66556
  17. 66557
  18. 66558
  19. 66559
  20. 66560