Showing 1,661 - 1,680 results of 103,867 for search '(( 5 ((nn decrease) OR (a decrease)) ) OR ( e ((fold decrease) OR (point decrease)) ))', query time: 1.59s Refine Results
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    Cyclopropane as an Unsaturation “Effect Isostere”: Lowering the Melting Points in Lipid-like Ionic Liquids by Richard A. O’Brien (1538818)

    Published 2023
    “…The data indicate there is considerable structural latitude possible when designing highly lipophilic ionic liquids that exhibit low melting points. While cyclopropanation of the lipid-like ionic liquids provides more resistance to aerobic degradation than their olefin analogs, the impact on the melting point decrease is not as pronounced. …”
  5. 1665

    S1 Data - by Mahmoud A. Alomari (14780446)

    Published 2023
    “…</p><p>Results</p><p>The prevalence of smoking was 33.3%, 46.1%, and 21.1% for cigarettes (Cg), waterpipe (Wp), and E-cigarettes (ECg), respectively. Among the smokers, 38.5–45.8% reported a “no-change,” while 32.1–41.7% reported adecrease” in SH during confinement. …”
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    The participant demographic (n = 1844). by Mahmoud A. Alomari (14780446)

    Published 2023
    “…</p><p>Results</p><p>The prevalence of smoking was 33.3%, 46.1%, and 21.1% for cigarettes (Cg), waterpipe (Wp), and E-cigarettes (ECg), respectively. Among the smokers, 38.5–45.8% reported a “no-change,” while 32.1–41.7% reported adecrease” in SH during confinement. …”
  8. 1668

    Prevalence of smoking during COVID19 (n = 1844). by Mahmoud A. Alomari (14780446)

    Published 2023
    “…</p><p>Results</p><p>The prevalence of smoking was 33.3%, 46.1%, and 21.1% for cigarettes (Cg), waterpipe (Wp), and E-cigarettes (ECg), respectively. Among the smokers, 38.5–45.8% reported a “no-change,” while 32.1–41.7% reported adecrease” in SH during confinement. …”
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    Nitric Oxide Oxidatively Nitrosylates Ni(I) and Cu(I) <i>C</i>-Organonitroso Adducts by Stefan Wiese (1626535)

    Published 2009
    “…[Me<sub>2</sub>NN]Cu(NCMe) reacts with 0.5 equiv of ArNO in ether to give the dinuclear adducts {[Me<sub>2</sub>NN]Cu}<sub>2</sub>(μ-η<sup>2</sup>:η<sup>1</sup>-ONAr) (<b>2a</b> and <b>2b</b>), which exhibit η<sup>2</sup> and η<sup>1</sup> bonding of the ArNO moiety with separate [Me<sub>2</sub>NN]Cu fragments possessing N−O distances of 1.375(6) Å (<b>2a</b>) and 1.368(2) Å (<b>2b</b>). …”
  18. 1678

    Nitric Oxide Oxidatively Nitrosylates Ni(I) and Cu(I) <i>C</i>-Organonitroso Adducts by Stefan Wiese (1626535)

    Published 2009
    “…[Me<sub>2</sub>NN]Cu(NCMe) reacts with 0.5 equiv of ArNO in ether to give the dinuclear adducts {[Me<sub>2</sub>NN]Cu}<sub>2</sub>(μ-η<sup>2</sup>:η<sup>1</sup>-ONAr) (<b>2a</b> and <b>2b</b>), which exhibit η<sup>2</sup> and η<sup>1</sup> bonding of the ArNO moiety with separate [Me<sub>2</sub>NN]Cu fragments possessing N−O distances of 1.375(6) Å (<b>2a</b>) and 1.368(2) Å (<b>2b</b>). …”
  19. 1679

    Nitric Oxide Oxidatively Nitrosylates Ni(I) and Cu(I) <i>C</i>-Organonitroso Adducts by Stefan Wiese (1626535)

    Published 2009
    “…[Me<sub>2</sub>NN]Cu(NCMe) reacts with 0.5 equiv of ArNO in ether to give the dinuclear adducts {[Me<sub>2</sub>NN]Cu}<sub>2</sub>(μ-η<sup>2</sup>:η<sup>1</sup>-ONAr) (<b>2a</b> and <b>2b</b>), which exhibit η<sup>2</sup> and η<sup>1</sup> bonding of the ArNO moiety with separate [Me<sub>2</sub>NN]Cu fragments possessing N−O distances of 1.375(6) Å (<b>2a</b>) and 1.368(2) Å (<b>2b</b>). …”
  20. 1680

    Nitric Oxide Oxidatively Nitrosylates Ni(I) and Cu(I) <i>C</i>-Organonitroso Adducts by Stefan Wiese (1626535)

    Published 2009
    “…[Me<sub>2</sub>NN]Cu(NCMe) reacts with 0.5 equiv of ArNO in ether to give the dinuclear adducts {[Me<sub>2</sub>NN]Cu}<sub>2</sub>(μ-η<sup>2</sup>:η<sup>1</sup>-ONAr) (<b>2a</b> and <b>2b</b>), which exhibit η<sup>2</sup> and η<sup>1</sup> bonding of the ArNO moiety with separate [Me<sub>2</sub>NN]Cu fragments possessing N−O distances of 1.375(6) Å (<b>2a</b>) and 1.368(2) Å (<b>2b</b>). …”