FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2176202364> ?p ?o ?g. }

• W2176202364 endingPage "764" @default.
• W2176202364 startingPage "742" @default.
• W2176202364 abstract "An approach is developed enabling one to calculate the collision efficiency and the collision kernel within a wide range of the Reynolds numbers (from 0 to 100) corresponding to drops up to 300-μm radii. The flow velocity field induced by falling drops is obtained by interpolation of two analytical solutions: the Stokes solution suitable for description of cloud droplets with radii below 30 μm (Re < 0.4) and the solution given by suitable for drops with radii ranging from 40 to 300 μm. The collision efficiency and the collision kernel are calculated at different heights of 1000, 750, and 500 mb. It is shown that both the collision efficiencies and the collision kernel significantly increase with height. This increase of the collision kernel is by 90% caused by the increase in the collision efficiency, and only by 10% is related to the increase of the swept volume. This is because of the high sensitivity of the collision efficiency to the relative drop–drop velocity. The increase of the collision kernel with height is different for different drop pairs. It is maximal for droplets of 5–10 μm colliding with comparably small drop collectors of 15–25-μm radii. For these drop pairs the collision kernel at the 500-mb level is twice as large as (and even more than) that at the 1000-mb level. The collision efficiencies are calculated and presented in tables, with the high resolution required to describe sharp gradients for small droplets. The drop spectrum broadening and the rate of precipitation formation are found to be sensitive with respect to the variations of the collision rate with height. This is illustrated by solving the stochastic equation of collisions. The increase of the drop–drop collision rate with height turned out to be significant and thus should be incorporated in numerical cloud models. The increase of the collision kernels with height for certain drop sizes can be of much importance in the context of the problem of the effect of “coalescence nuclei” arising on ultragiant cloud condensation nuclei, on the rain formation. This effect can also be important in rain enhancement by means of hygroscopic seeding. Possible effects of the density of colliding particles and the air density on the rate of riming are discussed." @default.
• W2176202364 created "2016-06-24" @default.
• W2176202364 creator A5020892328 @default.
• W2176202364 creator A5024090010 @default.
• W2176202364 creator A5076825690 @default.
• W2176202364 date "2001-04-01" @default.
• W2176202364 modified "2023-10-18" @default.
• W2176202364 title "Collision Efficiency of Drops in a Wide Range of Reynolds Numbers: Effects of Pressure on Spectrum Evolution" @default.
• W2176202364 cites W1499181428 @default.
• W2176202364 cites W1554779959 @default.
• W2176202364 cites W1571663278 @default.
• W2176202364 cites W1965383339 @default.
• W2176202364 cites W1969556058 @default.
• W2176202364 cites W1990015558 @default.
• W2176202364 cites W1990374254 @default.
• W2176202364 cites W1997012756 @default.
• W2176202364 cites W2014212161 @default.
• W2176202364 cites W2015267292 @default.
• W2176202364 cites W2017922386 @default.
• W2176202364 cites W2031189883 @default.
• W2176202364 cites W2033264524 @default.
• W2176202364 cites W2033455002 @default.
• W2176202364 cites W2037864646 @default.
• W2176202364 cites W2038019298 @default.
• W2176202364 cites W2041544069 @default.
• W2176202364 cites W2047171210 @default.
• W2176202364 cites W2048186061 @default.
• W2176202364 cites W2053175080 @default.
• W2176202364 cites W2054494496 @default.
• W2176202364 cites W2055992595 @default.
• W2176202364 cites W2057535071 @default.
• W2176202364 cites W2078760638 @default.
• W2176202364 cites W2081040377 @default.
• W2176202364 cites W2095397854 @default.
• W2176202364 cites W2096128792 @default.
• W2176202364 cites W2120967297 @default.
• W2176202364 cites W2121850651 @default.
• W2176202364 cites W2123330993 @default.
• W2176202364 cites W2140445908 @default.
• W2176202364 cites W2144620018 @default.
• W2176202364 cites W2151206173 @default.
• W2176202364 cites W2162613484 @default.
• W2176202364 cites W2167918218 @default.
• W2176202364 cites W2176901707 @default.
• W2176202364 cites W219308262 @default.
• W2176202364 cites W2531802173 @default.
• W2176202364 doi "https://doi.org/10.1175/1520-0469(2001)058<0742:ceodia>2.0.co;2" @default.
• W2176202364 hasPublicationYear "2001" @default.
• W2176202364 type Work @default.
• W2176202364 sameAs 2176202364 @default.
• W2176202364 citedByCount "151" @default.
• W2176202364 countsByYear W21762023642012 @default.
• W2176202364 countsByYear W21762023642013 @default.
• W2176202364 countsByYear W21762023642014 @default.
• W2176202364 countsByYear W21762023642015 @default.
• W2176202364 countsByYear W21762023642016 @default.
• W2176202364 countsByYear W21762023642017 @default.
• W2176202364 countsByYear W21762023642018 @default.
• W2176202364 countsByYear W21762023642019 @default.
• W2176202364 countsByYear W21762023642020 @default.
• W2176202364 countsByYear W21762023642021 @default.
• W2176202364 countsByYear W21762023642022 @default.
• W2176202364 countsByYear W21762023642023 @default.
• W2176202364 crossrefType "journal-article" @default.
• W2176202364 hasAuthorship W2176202364A5020892328 @default.
• W2176202364 hasAuthorship W2176202364A5024090010 @default.
• W2176202364 hasAuthorship W2176202364A5076825690 @default.
• W2176202364 hasBestOaLocation W21762023641 @default.
• W2176202364 hasConcept C121332964 @default.
• W2176202364 hasConcept C121704057 @default.
• W2176202364 hasConcept C159985019 @default.
• W2176202364 hasConcept C182748727 @default.
• W2176202364 hasConcept C192562407 @default.
• W2176202364 hasConcept C196558001 @default.
• W2176202364 hasConcept C204323151 @default.
• W2176202364 hasConcept C2781345722 @default.
• W2176202364 hasConcept C30475298 @default.
• W2176202364 hasConcept C38652104 @default.
• W2176202364 hasConcept C41008148 @default.
• W2176202364 hasConcept C56498450 @default.
• W2176202364 hasConcept C57879066 @default.
• W2176202364 hasConcept C74650414 @default.
• W2176202364 hasConcept C76155785 @default.
• W2176202364 hasConceptScore W2176202364C121332964 @default.
• W2176202364 hasConceptScore W2176202364C121704057 @default.
• W2176202364 hasConceptScore W2176202364C159985019 @default.
• W2176202364 hasConceptScore W2176202364C182748727 @default.
• W2176202364 hasConceptScore W2176202364C192562407 @default.
• W2176202364 hasConceptScore W2176202364C196558001 @default.
• W2176202364 hasConceptScore W2176202364C204323151 @default.
• W2176202364 hasConceptScore W2176202364C2781345722 @default.
• W2176202364 hasConceptScore W2176202364C30475298 @default.
• W2176202364 hasConceptScore W2176202364C38652104 @default.
• W2176202364 hasConceptScore W2176202364C41008148 @default.
• W2176202364 hasConceptScore W2176202364C56498450 @default.
• W2176202364 hasConceptScore W2176202364C57879066 @default.
• W2176202364 hasConceptScore W2176202364C74650414 @default.
• W2176202364 hasConceptScore W2176202364C76155785 @default.

• next