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Bruevich, Semyon V; Korzh, Vyacheslav D (1971): (Table 3) Boron and chlorine in atmospheric moisture and rain water collected on the shore of the Golubaya Bay in 1970 [dataset]. P.P. Shirshov Institute of Oceanology, Russian Academy of Sciences, Moscow, PANGAEA, https://doi.org/10.1594/PANGAEA.753312, Supplement to: Bruevich, SV; Korzh, VD (1971): Boron exchange between the sea and the atmosphere. Oceanology, 11, 345-351

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Abstract:
Boron and chlorine were determined in rain water and in atmospheric moisture condensed in a "Saratov" refrigerator. Ocean is the main source of boron on the earth surface. Boron evaporates from the ocean and enriches atmospheric precipitation: B/Cl ratio of ocean water (0.00024) increases by factor of 10-15. Assuming that the average Cl content in global river runoff is 7.8 mg/l and boron content 0.013 mgl, B/Cl ratio in this runoff is 0.0017. The average B/Cl ratio in rain water of the Golubaya (Blue) Bay (Gelendzhik, Black Sea region) is 0.0026 and in condensates of atmospheric moisture during onshore and offshore winds in the same region it averages from 0.0029 to 0.0033. The maximum boron content in the condensates of this region during onshore winds was 0.032 mg/l and the minimum during offshore winds, 0.004 mg/l. /Cl ratio in sea water over the Atlantic Ocean and in the Gelendzhik area of the Black Sea varied within narrow range, mostly from 0.0025 to 0.0035. Similar B/Cl ratio (0.0024) was found for atmospheric precipitation on the slope of the Terskei Ala-Tau near the Issyk-Kul Lake in 1969. Thus, although chemistries of boron and chlorine (in chlorides) are very different, the B/Cl ratio in the atmosphere is fairly constant. This can be taken as a confirmation of an assumption that salt composition of sea water passes into the atmosphere in molecularly dispersed state. Supposing that the ocean-atmosphere system is in equilibrium as regards to the boron budget, it can be assumed that the same amount of boron passes from the ocean into bottom sediments and from lithosphere rocks and soils into the hydrosphere.
Project(s):
Coverage:
Latitude: 44.577000 * Longitude: 37.979000
Event(s):
GB-SBIOAS * Latitude: 44.577000 * Longitude: 37.979000 * Location: Red Sea * Campaign: ML19 * Basis: Mikhail Lomonosov * Method/Device: Rain water collector (RAIN)
Parameter(s):
#NameShort NameUnitPrincipal InvestigatorMethod/DeviceComment
Sample code/labelSample labelBruevich, Semyon V
DateDateBruevich, Semyon V
DurationDurationhBruevich, Semyon Vof sampling
Wind direction descriptionWind dir descrBruevich, Semyon V
Wind speed, maximumff maxm/sBruevich, Semyon V
Humidity, relative, minimumRH min%Bruevich, Semyon V
Sample volumeSamp volmlBruevich, Semyon V
ChlorineClg/lBruevich, Semyon VTitrationin condensate
ChlorideClng/m3Bruevich, Semyon VTitrationin air
10 BoronBµg/lBruevich, Semyon VTitration
11 BoronBng/m3Bruevich, Semyon VTitration
12 Boron/Chlorine ratioB/ClBruevich, Semyon VCalculated
13 CommentCommentBruevich, Semyon V
Size:
433 data points

Data

Download dataset as tab-delimited text — use the following character encoding:


Sample label

Date

Duration [h]

Wind dir descr

ff max [m/s]

RH min [%]

Samp vol [ml]

Cl [g/l]

Cl [ng/m3]
10 
B [µg/l]
11 
B [ng/m3]
12 
B/Cl
13 
Comment
GB-11970-09-2824NNE10311800.004841900014000550.0029condensate
GB-21970-09-3018NE10261200.00343680012000170.0035condensate
GB-31970-10-0127SE8492500.003831930012000600.0031condensate, drizzle
GB-41970-10-0216SE125610000.02480192300320002500.0013condensate, storm, spray from the sea
GB-51970-10-026SE12563000.0103078000250001950.0025condensate, storm
GB-61970-10-0317SSE10668000.0042447000140001550.0033condensate
GB-71970-10-0418SE75910000.00242233008000770.0033condensate
GB-81970-10-0518SE106012000.00121106004000340.0032condensate, before rainfall
GB-91970-10-054S10605000.01190300002520.0025rain water
GB-101970-10-059S10606500.0052545300160001360.0030condensate, drizzle
GB-111970-10-0614SW10615000.0049442000160001300.0031condensate, occasional drizzle
GB-121970-10-0724W16608000.0052542900150001200.0028condensate, before rainfall
GB-131970-10-076W16605000.01970380000.0020rain water
GB-141970-10-076W16604000.004142720012000790.0029condensate, during rainfall
GB-151970-10-0820NW5537000.003231800010000560.0031condensate
GB-161970-10-084NW5531500.00242136008000450.0033condensate
GB-171970-10-0912NNE7525000.00282186008000520.0028condensate
GB-181970-10-1015NE6432700.0012160006000300.0050condensate
GB-191970-10-1123NE4506000.0010158004000230.0040condensate
GB-201970-10-1220NE5635000.0010170004000280.0040condensate
GB-211970-10-1316NE7595000.0012185004000280.0033condensate
GB-221970-10-1412NW10524000.0016296004000230.0024condensate
GB-231970-10-148NW10522500.00182104004000230.0022condensate
GB-241970-10-1524NE10455000.0018266006000220.0033condensate
GB-251970-10-1624NE5522500.00182100006000340.0033condensate
GB-261970-10-1724NE5423000.0016257006000210.0037condensate
GB-271970-10-1824NE4463000.0016262004000150.0024condensate
GB-281970-10-1924SW2394000.0014150004000140.0028condensate
GB-291970-10-2022SE2408000.0014175004000210.0028condensate
GB-301970-10-2120SE6555000.00141118004000330.0028condensate
GB-311970-10-2218SE7515000.00141118004000330.0028condensate
GB-321970-10-2324ESE6398000.00202143006000430.0030condensate
GB-331970-10-24NE6765000.0018260000.0033rain water
GB-341970-11-02SE24724000.00384100000.0026rain water collected by V.A. Yegorova