S108 2 = N w - oo © GRAMINEAE _ o TILIA L— zy <= 10° f— L O Zz A CHENOPODIACEAE AMARANTHACEAE a = —_— oO — oe __— — cel —x Zz | ~ Yooh Eo =a = = 102 pe U Zz __ — — O 4 T z ear Le —al Oo —— | a 575 _l 10° | a o io! fe | = © Mp, 1p, 105p,, T 3 T A O | a 957 - — rb = <I a _ Mice, t _| T Idd, — 144, _| _| e@ TOTAL e—— — z O 10° -— | O O | a Zz —— a be WU — _ _ — — | IP co 160 | L | | | 3P 5P 2P4P6P 7P SP OP WHUKK Oo | A mia =F? OLE 123456 7 8 9 Oo RAINFALL RATE, MM/HR F 10°! O 5 a 1 — 1850 nas. 1900 | 1910 1920 1930 TIME, EST 1940 seeks 1950 2000 Fig. 5—Resulis of rainwater analyses and rainfall-rate data for June 25,1962, The common names and diameters of the several pollens are given in the appendix to this paper. miles. No thunder was heard, and the structure in general was a loose composite of relatively weak convective cells. The rain of May 19 took place in an apparently convergent flow in warm air without being directly associated with identifiable frontal or squall passages. Radar observations showed no well-developed cells of strong convection, all echo tops occurring below about 36,000 ft. Rainfall Intensity The rainfall-intensity graphs for these two events are shown in Figs. 7 and 8. Transit of the station by rain-producing cells is

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