Drop formation from rapidly moving liquid sheets

Abstract

Plots were made of the logarithm of yn (activity coefficient of chlorofluoromethanes) vs. the reciprocal of absolute temperature at various compositions. The resulting curves were essentially straight lines in all cases, and the slopes were taken equal to the partial derivative. Figure 4 indicates the results found for bgR as a function of coniposition for the system of chlorodifluoromethane and tetraethylene glycol dimethyl ether.

Liquid‐phase mass transfer in spray contactors

“…As the liquid moves farther away from the nozzle, the cone expands and the sheet thins. The breakup of sheets occurs by a wavy mechanism (Figure 2.3), as opposed to the dilational, symmetric disturbances that govern jet breakup (Fraser et al, 1962). In the sheet, asymmetric disturbances grow, and waves form.…”

Trends in Comprehensive Modeling of Spray Formation

“…The linear temporal analyses predict that an optimum frequency exists where growth rate is a maximum. Fraser et al [90] extended the analysis on the aerodynamic instability of liquid sheets of uniform thickness to the flow of attenuating liquid sheets as observed in the flow in a fan spray sheet.…”

Analysis of Waste Leak and Toxic Chemical Release Accidents from Waste Feed Delivery (WFD) Diluent System

“…For the fan nozzles, with an aspect ratio of approximately 2 (actually from 1.8 to 2.2, Fraser et al, 1962), used by Hasson & Mizrahi and Fraser, et al, the spray angle was 1 1S0, which gives a K value of about 0.583A using Equation (6). For a given nozzle, K can be determined experimentally (sheet thickness times radial distance from orifice, especially at time of break up into ligaments).…”