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Full text: 6: Beobachtungen auf den deutschen Feuerschiffen der Nord- und Ostsee im Jahre 1953

‚350 
TEMPERATUR un» SALZGEHALT IN DER TIEFE VON: Fehmarnbelt 
| . Dezember 
da- | November . 
WM [tz a ET 
—_ 1 m 15m 20m 75m 
12,5! 15.08 | 20.34 12.4 
10,7} 1.28 12.23 | 11.4‘ 
‘0,3 9.16 14.94 | 11.6 
‘0,3 10.41 Zn de 
‘6 12.14 17.27 114,61 
9.16 18.39 
11,92! 19.99 
2.65 | 18.22! 
13,50 | 6405 
‘7.25 18,73 
Boden 
11.51 23,91 
12.0 | 22,03 
12.1 | 20.25 
12.0 | 19.49 | 
iO ‘9,92 
42.2 | 20.30 
11.7 SS 
11.7] 22.25 
12.0 | 23.46 
11.91 23,26 
20.23 
21,71 
208 
23.01 
24.22 
22.75 | 6.4 14.47 
24.C0O | 6,6'| 16.80 
23.04 | 6,5| 16.00" 
23.08 | 5.7' 16.06" 
23.13 5.7 5,25 
92.901] 5,2 12.92 
22.70] 5.4 16.73 
22.95 | 5.51 18.77 
21.85! 5,6} 17.00 
70.99 4,5 13.66 | 
21.31 | 15.79 
21.04 | 
21.85 
21.35| 
21.65 
10m 
tt 
vr 
15 m 
nm — 
20m "5m 
23,82 
19 
19.78 
19.40| 
9.67 
19.70 | 
20.25 
21.00 
22.99 
20.07 
19,538 
20.61 
22.81 
20.30 
19.80} 
204 
22.75 8.3 
23.66 8.3 
21.92| 8,2 
22,591 8.4 
23.621] 8.3 
21.37 | 8.3 
"9.63 | 8,2 
SS 7.6 
17.76) 8.0 
7.16 
15,95! 
17.50} 
17.92 | 
«8,19 
22.00 
23.04 
23.77 
23,66 
24,04 
24.38 
22.56! 
20.16 
BOT) 
382,91 
“7.25 7,3] 
16.64 7.8 
19,96 Del 
21.55 | 8.0 
18.93 TA 
8.4 22.04 
8.31} 23.10 
3 23,82 
8.3 | 24,02 
8,4 | 24.63 
8.1 | 24.51 
8.2] 23.03 
8,3 1.22.75 
8,2 | 22.75 
7.71 22,03 
20,21 
21.62 
20.64 
24.16 
22.41 
22.16 
23.19 
Zi 
24.09 
24.78 ' 
24.63 
23.66 
24.49 
23.73 
24.22 
23.53 
22.01 ' 
24.52 
24.07 | 
24,50 
23.781 
24.38 
24.25] 
24.33 | 
a 
23,66] 
23.64 | 
25.73 
25.42 | 
an 72 
RZ 
3,4 
3.4 
3,4 
; 
az 
+. 
9 
3,2 
CE 
x 
4 
5.2 
” 
10.2 | 17.57 
2 40.21 17.61 
13 10.3 19,56 
‚4 10,1 | 18.39 
15! 9.0) 17.03 
16! 10.0 18.12 
“710,0 |17.65 | 100 
18 | 9.3 | 17.00 
5 9.2 | 17.32 
20! 9,2 | 19794 
u 2.6! 19.02 20.03 | 
221 9,81 21.31 21.44 
23] 9.7‘ 20.08 4.09 | 
24 | 9.5 19,72 19.79 
a5 A 479 17.94 | 
26 | 7.91 16.04 16.22 
27 | 7.8115.8/ 7,8 15.84 
28 | 9,61 16.17 3.8 16,55 
29 7 16.80 ‚4 17.61 
30 | 8.218.711 8,3! 18.78 
(9.58 
18.37 
50,64 
21.96 | 
29.25 
10.7 
0.5 
10.5 
10.5 
1O.R 
20.05 | 10.7 
19.76 | 10.6 
21,33 10,5. 
22.68 | 10,5 
22.681 106.85‘ 
20.16 
20.77 
21,85 
22.99 
22.79 
20.211 10.8 
DOSE. dw 
22.43 | 10.6! 
23,01 1045| 
24.141 40.6 
‚5 
3.6 
10.5 
10.6 
3 
z al 
# 
6 
Se 
8 
20.10 
‘8.80 
“8.62 
"74 65 
56 8a} 
10,5 
10.1 
22,09! 10,5 
20.2* | 40.2 
3.85 
18.15 1 
20,41 
21.09 | 19. 
21.64 | 9.7 
21,641 9.7 
19.89 | 10,0 
18.03 | 23 
3,41 416.71 
3,3 | 156.87 ' 
8.1 16.69 
7.8 17:70| 
8.3 | 18.84 
22.50 
20.28 
20.79 
19.56 
21.69 
2.72 1045 
20.95 | 10.6 
22.72 | 10.5 
2229| 10.4 
23.121 10.4 
22,851 10,4 
22.61 | 9.8 
22.94 9,.8' 
21,25 | 10.0 | 
19.38! 9,7‘ 
21.04 
20,97 
21.73 
21.26 
21.56 
15.84 
7492 
5.6 16.33 
7 | 16.24 
5.0 * 17.68 
5.0 18.10 
19.56 
21.20 
20.52 
17.21 
18.48 
21.56 
17.68 
20.70 
4441 
20.21 
5.7) 18.33 
5,3 18.82 
6.71 17.21 
+ 18.60 
7.0 19,00 
20.86 
22.36 | 
22.48 
22.36 | 
21.85 
20.93 
22.39 
20.28 
22.39 
22.21 
21.49 
7.2 ' 
7,0 
6.9 
8,3 
7.14 
a,.2 
8.4 
8.5 
3,5) 
7.3 
5.0 
7,5 
145 
„5 
7.7 
20.12 
20.93 
19.42 
24.31 
23.40 
23,04. | 
23.44 
23,19 
22.90 
22,43 
22,75 
22.68 
23,26, 
24.14 | 
23,77 
5z 6a 
CE 
— 
Da) 
21.62 
22,57 
22,48 
| 
18,22 
18.01 | 
18:30 
18,21 
18.13 
504 14 
8 
2.8 
0.0 
Ga 
3.6 
15 
„u 
‚4 
9,3 
5.8 
8.1 
3.2 
8.2 
7.4 
3,5 
+4 
7,1 
"DO 
‚4 
7.2 
3.0 
6.6 
72 
1.4 
S.4 
8.1 23,06€ 
7,6 23.37 
3.0 | 23.86 
7.6 | 24.36 
7,6 8 24.36 
7.6 Io4.07 | 
5.3 
20,41 | 53.0 
21,00 5.9 
19.27 | 5.68 
5.9 
5.8 
6,7 
7. 9 
— Boden 
PEN 
8.4 | 22.18 
8.4 2 
8.4 | 23.95 
8,4 | 24.13 
8.41 24.831 
8,2 24.70 | 
8.2 | 23.75 
5 24.54 | 
8.3 | 24.54 
8,11 24,45 
7.81] 24,34 | 
% 23.44 
8,4 | 24.54 | 
8.3! | 
8,2 24.45 | 
24.51 
24429 
4 
24.47 
23.58 | 
23.71 1 
253,77 
23.95 
23,53 
273.48 
23.86 | 
O0 23.87 
„0 * 23.80 
7,6 | 24,40 
1.7 | 24.70 
7 2A _ RKNo full text available for this image
	        
Le a An ADVANCING EARTH AND SPACE SCIENCES Journal of Geophysical Research: Oceans 10.1029/2023JC019937 Sloyan, B. M., Talley, L. D., Chereskin, T. K., Fine, R., & Halte, J. (2010). Antarctic intermediate water and subantarctic mode water formation in ‘he Southeast Pacific: The role of turbulent mixing. Journal of Physical Oceanography, 40(7), 1558-1574. https://doi.org/10.1175/ 2010JP04114.1 Speer, K., & Tziperman, E. (1992). Rates of water mass formation in the North Atlantic Ocean. Journal of Physical Oceanography, 22(1), 93-104 https://doi.org/10.1175/1520-0485(1992)022 <0093:rowmfi>2.0.co;2 Stendardo, I., Kieke, D., Rhein, M., Gruber, N., & Steinfeldt, R. (2015). Interannual to decadal oxygen variability in the mid-depth water masses of the eastern North Atlantic. Deep-Sea Research Part I Oceanographic Research Papers, 95, 85-98. https:/doi.org/10.1016/j.dsr.2014.10.009 Stendardo, I., Rhein, M., & Steinfeldt, R. (2020). The North Atlantic Current and its volume and fresh-water transports in the subpolar North Atlantic, time period 1993 - 2016. Journal of Geophysical Research: Oceans, 125(9), e2020JC016065. https://doi.org/10.1029/2020JC016065 Stommel, H. (1979). Determination of water mass properties of water pumped down from the Ekman layer to the geostrophic flow below (subtropical gyre/Ekman pumping/water mass origins). PNAS, 76(7), 3051-3055. https://doi.org/10.1073/pnas. 76.7.3051 L’ooth, O. J., Johnson, H. L., & Wilson, C. (2023). Lagrangian overturning pathways in the Eastern Subpolar North Atlantic. Journal of Climate, 36(3), 823-844. https://doi.org/10.1175/JCLI-D-21-0985.1 Trossman, D. S., Thompson, L., Mecking, S., & Warner, M. J. (2012). On the formation, ventilation, and erosion of mode waters in the North Atlantic and Southern Oceans. Journal of Geophysical Research, 117(9), C09026. https://doi.org/10. 1029/2012JC008090 Walin, G. (1982). On the relation between sea-surface heat flow and thermal circulation in the ocean. Tellus, 34(2), 187-195. https:/doi.org/10. 1111/7.2153-3490.1982.TB01806.X Xu, X., Rhines, P. B., & Chassignet, E. (2018). On mapping the diapycnal water mass transformation of the Upper North Atlantic Ocean. Journal of Physical Oceanography, 45(10), 2233-2258. https:/doi.org/10.1175/JPO-D-17-0223.1 /hang, R., Sutton, R., Danabasoglu, G., Kwon, Y. O., Marsh, R., Yeager, S. G., et al. (2019). A review of the role of the Atlantic meridional overturning circulation in Atlantic multidecadal variability and associated climate impacts. Reviews of Geophysics, 57(2), 316-375. https://doi. org/10.1029/2019RG000644 STENDARTIO ET AL } af
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