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Last modified
7/28/2009 2:36:45 PM
Creation date
4/16/2008 10:26:33 AM
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Template:
Weather Modification
Title
Investigations of Winter Storms in Utah
Prepared By
Alexis B. Long, Atmospheric Sciences Center
Date
12/1/1986
State
UT
Weather Modification - Doc Type
Report
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<br />Figure 87. Westerly water vapor flux from rawinsondes, water release <br />rate from C-band radar and rawinsondes, radiometer super- <br />cooled liquid water depth, lidar linear depolarization <br />ratio, and Rosemount probe supercooled liquid water content <br />as a function of time and, in some cases, other variables. <br /> <br />Figure 88. Same as Fig. 87 but for the period from 0400 MST to near the <br />end of the STORM (-1700-2000 MST) on 9 February. <br /> <br />Figure 89. <br /> <br />Diagram <br />ratio to <br />kinds of <br /> <br />showing relation of lidar linear depolarization <br />the dominant phase of the clouds sampled and to the <br />hydrometeors in the clouds. <br /> <br />Figure 90. Supercooled liquid water depths (mm) measured with the <br />radiometer in the zenith direction from 2200 MST to 0320 MST <br />on 8-9 February 1985. <br /> <br />Figure 91. Spectral analysis of the one-minute supercooled liquid water <br />depths measured with the radiometer in the zenith direction <br />from 2200 MST to 0320 MST on 8-9 February 1985. <br /> <br />Figure 92. Radiometer supercooled liquid water depth, lidar linear <br />depolarization ratio, precipitation particle habit, average <br />precipitation particle mass, precipitation particle number <br />flux, and precipitation rate as a function of time and, in <br />some cases, other variables. <br /> <br /> . <br />Page <br />256 <br /> . <br /> <br />258 <br /> <br />. <br /> <br />267 <br /> <br />270 <br /> <br />. <br /> <br />271 <br /> <br />. <br /> <br />284 <br /> <br />.' <br /> <br />Figure 93. Same as Fig. 92 but for the period from 0400 MST to near the 285 <br />end of the STORM (-1700-1900 MST) on 9 February. <br /> <br />Figure 94. Vertically-integrated westerly water vapor flux, normalized <br />vertically-integrated westerly supercooled liquid water <br />flux, and horizontally-integrated precipitation mass flux <br />all plotted as a function of time on 8-9 February. See text <br />for details. <br /> <br />Figure 95. Water release rate integrated vertically through various <br />temperature levels of the clouds and integrated vertically <br />from the surface to cloud top all as a function of time on <br />8-9 February. <br /> <br />Figure 96. Mean supercooled liquid water amount measured by the radio- <br />meter in the western sector from l80 degrees to 360 degrees <br />of azimuth '(solid line) or in the zenith direction overhead <br />(dashed line) as a function of time on 8-9 February. <br /> <br />Figure 97. Precipitation rate at the Merchant Valley remote sens~ng <br />site and at gages P3-P7 on average as a function of time on <br />8-9 February. <br /> <br />-x~v- <br /> <br />294 <br /> <br />. <br /> <br />301 <br /> <br />. <br /> <br />305 <br /> <br />. <br /> <br />308 <br /> <br />. <br /> <br />. <br />
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