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Wind velocity field: (a) 07.19.16 at the level 850 mb (1 -smoke transfer front line through Ural meridian and (b) 07.23.2016 at the level 800 mb (1 -smoke transfer line towards the east through meridian115 0 E).

Wind velocity field: (a) 07.19.16 at the level 850 mb (1 -smoke transfer front line through Ural meridian and (b) 07.23.2016 at the level 800 mb (1 -smoke transfer line towards the east through meridian115 0 E).

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A technique is proposed for determining of the large-scale smoke aerosol fluxes using a wind field reanalysis data and the satellite monitoring data of the aerosol optical depths and the vertical profile of the attenuation coefficient. The directions of the long-range transport of the Siberian smoke haze fragments were determined in July 2016. The...

Contexts in source publication

Context 1
... which ensured the transfer of the smoke air masses to Europe first through the Ural meridian [11], and then on the territory of many European countries [12,13]. An intensive smoke transport through the Ural Meridian was observed in the period from 07.19 to 07.27.2016. The nature of atmospheric circulation in this period is evidenced by Fig. 1a which shows the wind field built according to the IOP Conf. Series: Earth and Environmental Science 606 (2020) ...
Context 2
... ERA-Interim reanalysis at the level of 850 mb. Figure 1a shows the frontal line (1), located on the Ural meridian, selected for the calculation of the corresponding large-scale aerosol flux. ...
Context 3
... 25 to 31 July, there was an intense eastward flux of smoke aerosol at latitudes from about 65° to 70°N. as an example in Fig. 1b shows the wind field on 07.23. 2016 at the level of 850 mb (1-the frontal line of the transfer of smoke air masses on the meridian 115°E). ...