Showing 13,341 - 13,360 results of 13,553 for search '(( a ((teer decrease) OR (linear decrease)) ) OR ( a ((largest decrease) OR (greatest decrease)) ))', query time: 0.40s Refine Results
  1. 13341

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  2. 13342

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  3. 13343

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  4. 13344

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  5. 13345

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  6. 13346

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  7. 13347

    Cu<sup>(I)</sup>(2,9-Bis(trifluoromethyl)-1,10-phenanthroline)<sub>2</sub><sup>+</sup> Complexes:  Correlation between Solid-State Structure and Photoluminescent Properties by Andrey Yu. Kovalevsky (2375683)

    Published 2004
    “…The 17 K lifetimes range up to 1.8 μs in the series of solids examined and, with the marked exception of the BF<sub>4</sub><sup>-</sup> salt, correlate linearly with the distortion parameter ζ. The emission wavelength red-shifts with decreasing lifetime, which implies that an increased ground-state distortion is associated with a smaller energy gap.…”
  8. 13348

    DataSheet1_Effects of fertilization on litter decomposition dynamics and nutrient release in orchard systems.docx by Huayue Nie (20385747)

    Published 2024
    “…<p>Plant litter decomposition is a significant ecosystem function that regulates nutrient cycling, soil fertility, and biomass production. …”
  9. 13349
  10. 13350

    Pressure and Light Multi-Physics Fields Comodulate the Multi-Length Scales of Chemical Wave Propagation in Diffusion-Fed Gels by Baoying Zhang (5751821)

    Published 2023
    “…Beyond this range, the complexity of the chemical wave multi-length scales periodic structure decreases linearly on enhancing the light intensity or increasing the pressure.…”
  11. 13351

    Methionine + cystine levels for piglets from 6 to 16 kg kept under different degrees of immune system activation by Roniê Wellerson PINHEIRO (6140771)

    Published 2018
    “…Pigs from six to 16 kg, independent of immune system activation, require 0.90% of total methionine + cystine, which corresponds to a daily intake of methionine + cystine 4.44 g/day and a ratio of 58% methionine + cystine: lysine.…”
  12. 13352

    Fluorescent Hybridization Immunostaining of Individual EBV Episomes by Paolo Norio (3808)

    Published 2013
    “…One of the two stretched molecules is a PacI-linearized EBV episome (molecule above) and can be recognized by the presence of the hybridization signals. …”
  13. 13353

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  14. 13354

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  15. 13355

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  16. 13356

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  17. 13357

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  18. 13358

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  19. 13359

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”
  20. 13360

    Electron Tomography Reveals Porosity Degradation Spatially on Individual Pt-Based Nanocatalysts by Weiwei Xia (1586359)

    Published 2022
    “…We demonstrate that the surface area–volume ratio (SVR) of cycled porous particles decreases linearly rather than reciprocally with particle size. …”