Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Figure 14: Relative contribution of different land use classes to the flux,EGER IOP1, turbulence tower, for four classes of atmospheric stratification: all strat-ifications (top panel), unstable (second panel from top), neutral (third panel from top) and stable (bottom panel).
4 Results for EGER IOP2 2008
4.1 Footprint synthesis - main tower
x1
0 2 4 6
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, all
x1
y1
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, unstable
0 2 4 6
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, neutral
y1
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, stable
Figure 15: Footprint climatology over land use map, EGER IOP2, main tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals.
The outermost isoline indicates the area where 95 % of the flux is coming from.
The black cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are
x1
Figure 16: Footprint climatology and spatial quality flag features for friction velocity, EGER IOP2, main tower, for four classes of atmospheric stratifi-cation. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
CO2 flux, all
x1
CO2 flux, unstable
1.04
CO2 flux, neutral
y1
CO2 flux, stable
Figure 17: Footprint climatology and spatial quality flag features for the CO2 flux, EGER IOP2, main tower, for four classes of atmospheric stratification.
White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
QH (without ITC), all
x1
QH (without ITC), unstable
1.04
QH (without ITC), neutral
y1
QH (without ITC), stable
Figure 18: Footprint climatology and spatial quality flag features for thesensible heat flux, EGER IOP2, main tower, for four classes of atmospheric strati-fication. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
Figure 19: Footprint climatology and spatial quality flag features for thelatent heat flux, EGER IOP2, main tower, for four classes of atmospheric strati-fication. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
4.2 Land use fractions - main tower
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Figure 20: Relative contribution of different land use classes to the flux,EGER IOP2, main tower, for four classes of atmospheric stratification: all stratifica-tions (top panel), unstable (second panel from top), neutral (third panel from top) and stable (bottom panel).
4.3 Footprint synthesis - turbulence tower
x1
0 2 4 6
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, all
x1
y1
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, unstable
0 2 4 6
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, neutral
y1
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, stable
Figure 21: Footprint climatology over land use map, EGER IOP2, turbu-lence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals.
The outermost isoline indicates the area where 95 % of the flux is coming from.
The black cross indicates the position of the main tower, the white cross the po-sition of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
Figure 22: Footprint climatology and spatial quality flag features for friction velocity, EGER IOP2, turbulence tower, for four classes of atmospheric strat-ification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
CO2 flux, all
x1
CO2 flux, unstable
1.04
CO2 flux, neutral
y1
CO2 flux, stable
Figure 23: Footprint climatology and spatial quality flag features for the CO2 flux, EGER IOP2, turbulence tower, for four classes of atmospheric strati-fication. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
QH (without ITC), all
x1
QH (without ITC), unstable
1.04
QH (without ITC), neutral
y1
QH (without ITC), stable
Figure 24: Footprint climatology and spatial quality flag features for the sensi-ble heat flux, EGER IOP2, turbulence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the correspond-ing footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
Figure 25: Footprint climatology and spatial quality flag features for thelatent heat flux, EGER IOP2, turbulence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the correspond-ing footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
4.4 Land use fractions - turbulence tower
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Figure 26: Relative contribution of different land use classes to the flux,EGER IOP2, turbulence tower, for four classes of atmospheric stratification: all strat-ifications (top panel), unstable (second panel from top), neutral (third panel from top) and stable (bottom panel).
5 Results for EGER IOP2 (extended) 2008
5.1 Footprint synthesis - turbulence tower
x1
0 2 4 6
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, all
x1
y1
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, unstable
0 2 4 6
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, neutral
y1
m
Coniferclearing 2003clearing 2007
−500 −250 0 250 500
−500−2500250500
Land use, stable
Figure 27: Footprint climatology overland use map, EGER IOP2 extended, turbulence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. The black cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and
x1
Figure 28: Footprint climatology and spatial quality flag features for friction velocity, EGER IOP2 (extended), turbulence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X-and y-axis are distances in meters.
x1
CO2 flux, all
x1
CO2 flux, unstable
1.04
CO2 flux, neutral
y1
CO2 flux, stable
Figure 29: Footprint climatology and spatial quality flag features for the CO2 flux, EGER IOP2 (extended), turbulence tower, for four classes of atmo-spheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X-and y-axis are distances in meters.
x1
QH (without ITC), all
x1
QH (without ITC), unstable
1.04
QH (without ITC), neutral
y1
QH (without ITC), stable
Figure 30: Footprint climatology and spatial quality flag features for thesensible heat flux, EGER IOP2 (extended), turbulence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
x1
Figure 31: Footprint climatology and spatial quality flag features for thelatent heat flux, EGER IOP2 (extended), turbulence tower, for four classes of atmospheric stratification. White isolines show the relative flux contribution of the corresponding footprint area in 10 % intervals. The outermost isoline indicates the area where 95 % of the flux is coming from. Quality flags of the flux from 1 to 9 are color coded. The red cross indicates the position of the main tower, the white cross the position of the turbulence tower. The plot is a map projection. X- and y-axis are distances in meters.
5.2 Land use fractions - turbulence tower
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Coniferous Forest
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2003
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Clearing 2007
land use percentage [%]
relative frequency
0 20 40 60 80
0.000.100.20
Figure 32: Relative contribution of different land use classes to the flux,EGER IOP2 (extended), turbulence tower, for four classes of atmospheric stratifi-cation: all stratifications (top panel), unstable (second panel from top), neutral (third panel from top) and stable (bottom panel).
6 Results for WALDATEM 2003
This section shows the footprint analysis for the time before the storm ac-cording to G¨ockede et al. (2005) for comparison purposes.
6.1 Footprint synthesis - main tower
Figure 33: Footprint climatology over land use map, WALDATEM 2003, main toweraccording to G¨ockede et al. (2005). a) all stratifications, b) unstable, c) neutral, d) stable.
6.2 Land use fractions - main tower
Conifer Forest
Flächenanteil [%]
relative Häufigkeit
0 20 40 60 80 100
0.000.050.100.15
Clearing
Flächenanteil [%]
0 20 40 60 80 100
0.000.050.100.15
Figure 34: Relative contribution of different land use classes to the flux, WAL-DATEM 2003, main towerfor all atmospheric stratifications. x-axis: land use percentage, y-axis: relative frequency.
7 Conclusions
The deliberately brief conclusions are: the main part of the footprint for both towers before and after the storm is dominated by coniferous forest. However, after the storm Kyrill on the 18th of January 2007, the footprint might com-pletely cover large clearings during stable atmospheric stratification, which account for a substantial part of the footprint under those situations.
References
Foken, T., M. G¨ockede, M. Mauder, L. Mahrt, B. D. Amiro, and J. W.
Munger: 2004, ‘Post-field data quality control’. In: Handbook of Microm-eteorology: A Guide for Surface Flux Measurements. Kluver Academic Publishers, Dordrecht, pp. 181–208.
Foken, T. and B. Wichura: 1996, ‘Tools for quality assessment of surface-based flux measurements’. Agricultural and Forest Meteorology78, 83–105.
Gerstberger, P., T. Foken, and K. Kalbitz: 2004, ‘The Lehstenbach and Steinkreuz Catchments in NE Bavaria, Germany’. In: E. Matzner (ed.):
Biogeochemistry of Forested Catchments in a Changing Environment: A German Case Study, Vol. 172. Heidelberg: Springer, pp. 15–41.
G¨ockede, M., T. Markkanen, C. B. Hasager, and T. Foken: 2006, ‘Update of a footprint-based approach for the characterisation of complex measurement sites’. Boundary-Layer Meteorology 118, 635–655.
G¨ockede, M., M. Mauder, and T. Foken: 2004a, ‘Qualit¨atsbegutachtung kom-plexer mikrometeorologischer Messstationen im Rahmen des VERTIKO-Projekts’. Arbeitsergebnisse, 25, Abteilung Mikrometeorologie, Univer-sit¨at Bayreuth. 39 p.
G¨ockede, M., M. Mauder, and T. Foken: 2005, ‘Summary of the results of footprint based quality assessment and quality control study for for-est sites’. Interner Bericht, Abteilung Mikrometeorologie, Universit¨at Bayreuth. 24 p.
G¨ockede, M., C. Rebmann, and T. Foken: 2004b, ‘A combination of quality assessment tools for eddy covariance measurements with footprintmod-elling for the characterisation of complex sites’. Agricultural and Forest Meteorology 127, 175–188.
Hasager, C. B. and N. O. Jensen: 1999, ‘Surface-flux aggregation in hetero-geneous terrain’. Quarterly Journal of the Royal Meteorological Society 125, 2075–2102.
Hasager, C. B., N. W. Nielsen, H. Soegaard, E. Boegh, J. H. Christensen, N. O. Jensen, M. Schultz Rassmussen, P. Astrup, and E. Dellwik: 2002,
‘SAT-MAP-CLIMATE Project results’. Technical report, Risø National Laboratory, Roskilde, Denmark. 71 p.
Mauder, M. and T. Foken: 2004, ‘Documentation and Instruction Manual of the Eddy Covariance Software Package TK2’. Arbeitsergebnisse, 26, Abteilung Mikrometeorologie, Universit¨at Bayreuth. 45 p.
Rannik, ¨U., T. Markkanen, J. Raittila, P. Hari, and T. Vesala: 2003, ‘Tur-bulence statistics inside and over forest: Influence on footprint prediction’.
Boundary-Layer Meteorology 109, 163–189.
Schmid, H. P.: 2002, ‘Footprint modeling for vegetation atmosphere exchange studies: a review and perspective’. Agricultural and Forest Meteorology 113, 159–183.
Serafimovich, A., L. Siebicke, K. Staudt, J. L¨uers, T. Biermann, S. Schier, J.-C. Mayer, and T. Foken: 2008a, ‘ExchanGE processes in mountain-ous Regions (EGER) - Documentation of the Intensive Observation Pe-riod (IOP1) September, 6th to October, 7th 2007’. Arbeitsergebnisse, 36, Abteilung Mikrometeorologie, Universit¨at Bayreuth. ISSN 1614-8916, 147 p.
Serafimovich, A., L. Siebicke, K. Staudt, J. L¨uers, M. Hunner, T. Gerken, S. Schier, T. Biermann, F. R¨utz, J. von Buttlar, M. Riederer, E. Falge, J.-C. Mayer, and T. Foken: 2008b, ‘ExchanGE processes in mountainous Regions (EGER) - Documentation of the Intensive Observation Period (IOP2) June, 1st to July, 15th 2008’. Arbeitsergebnisse, 37, Abteilung Mikrometeorologie, Universit¨at Bayreuth. ISSN 1614-8916, 180 p.
Staudt, K. and T. Foken: 2007, ‘Documentation of reference data for the experimental areas of the Bayreuth Centre for Ecology and Environmen-tal Research (BayCEER) at the Waldstein site’. Arbeitsergebnisse, 35, Abteilung Mikrometeorologie, Universit¨at Bayreuth. ISSN 1614-8916, 37 p.
Thomas, C., J. Ruppert, J. L¨uers, J. Schr¨oter, J.-C. Mayer, and T. Bertolini:
2004, ‘Documentation of the Waldatem-2003 Experiment’. Arbeitsergeb-nisse, 24, Abteilung Mikrometeorologie, Universit¨at Bayreuth. 59 p.
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Wilson, J. D. and B. L. Sawford: 1996, ‘Review of Lagrangian stochastic
A Appendix
The amount of wood cut before and after Kyrill is given in figure 35 and table 3.
0 200 400 600 800 1000 1200 1400
Coulissenhieb Weidenbrunnen Köhlerloh
Location
Solid cubic meter wood
July 2005 to June 2006 July 2006 to March 2007
Figure 35: Volume of wood cut before (blue) and after (red) Kyrill (in solid cubic meters).
Table 3: Volume of wood cut before and after Kyrill. Data source: Bayerische Staatsforsten, Mr. St¨ocker.
Location Wood cut (solid cubic meter)
July 2005 to June 2006 July 2006 to March 2007
Coulissenhieb 119.95 881.04
Weidenbrunnen 80.36 408.07
K¨ohlerloh 89.61 1162.88
Table 4: Volumes in the series “University of Bayreuth, Department of Microm-eteorology, Arbeitsergebnisse”
Nr Author(s) Title Year
1 Foken Der Bayreuther Turbulenzknecht 01/1999
2 Foken Methode zur Bestimmung der trockenen Deposi-tion von Bor
02/1999 3 Liu Error analysis of the modified Bowen ratio
method
02/1999 4 Foken et al. Nachfrostgef¨ahrdung des ¨OBG 03/1999 5 Hierteis Dokumentation des Experimentes Dlouh´a Louka 03/1999 6 Mangold Dokumentation des Experimentes am Standort
Weidenbrunnen, Juli/August 1998
07/1999 7 Heinz et al. Strukturanalyse der atmosph¨arischen
Turbu-lenz mittels Wavelet-Verfahren zur Bestimmung von Austauschprozessen ¨uber dem antarktischen Schelfeis
07/1999
8 Foken Comparison of the sonic anemometer Young Model 81000 during VOITEX-99
10/1999 9 Foken et al. Lufthygienisch-bioklimatische Kennzeichnung des
oberen Egertales, Zwischenbericht 1999
11/1999 10 Sodemann Stationsdatenbank zum BStMLU-Projekt
Lufthygienisch-bioklimatische Kennzeichnung des oberen Egertales
03/2000
11 Neuner Dokumentation zur Erstellung der meteorologis-chen Eingabedaten f¨ur das Modell BEKLIMA
10/2000 12 Foken et al. Dokumentation des Experimentes VOITEX-99 10/2000 13 Bruckmeier et
al.
Documentation of the experiment EBEX-2000, July 20 to August 24, 2000
01/2001 14 Foken et al. Lufthygienisch-bioklimatische Kennzeichnung des
oberen Egertales
02/2001 15 G¨ockede Die Verwendung des Footprint-Modells nach
Schmid (1997) zur stabilit¨atsabh¨angigen Bestim-mung der Rauhigkeitsl¨ange
03/2001
16 Neuner Berechnung der Evaporation im ¨OBG (Univer-sit¨at Bayreuth) mit dem SVAT-Modell BEK-LIMA
05/2001
17 Sodemann Dokumentation der Software zur Bearbeitung der FINTUREX-Daten
08/2002 18 G¨ockede et al. Dokumentation des Experiments STINHO-1 08/2002
Nr Author(s) Title Year 19 G¨ockede et al. Dokumentation des Experiments STINHO-2 12/2002 20 G¨ockede et al Characterisation of a complex measuring site for
flux measurements
12/2002 21 Liebethal Strahlungsmessger¨atevergleich w¨ahrend des
Ex-periments STINHO-1
01/2003 22 Mauder et al. Dokumentation des Experiments EVA GRIPS 03/2003 23 Mauder et al. Dokumentation des Experimentes
LITFASS-2003, Dokumentation des Experimentes GRASATEM-2003
12/2003
24 Thomas et al. Documentation of the WALDATEM-2003 Exper-iment
05/2004 25 G¨ockede et al. Qualit¨atsbegutachtung komplexer
mikromete-orologischer Messstationen im Rahmen des VERTIKO-Projekts
11/2004
26 Mauder and Fo-ken
Documentation and instruction manual of the eddy covariance software package TK2
12/2004 27 Herold et al. The OP-2 open path infrared gas analyser for
CO2and H2O
01/2005 28 Ruppert ATEM software for atmospheric turbulent
ex-change measurements using eddy covariance and relaxed eddy accumulation systems and Bayreuth whole-air REA system setup
04/2005
29 Foken (Ed.) Klimatologische und mikrometeorologische Forschungen im Rahmen des Bayreuther In-stitutes f¨ur Terrestrische Okosystemforschung¨ (BIT ¨OK), 1989-2004
06/2005
30 Siebicke & Ser-afimovich
Ultraschallanemometer- ¨Uberpr¨ufung im Wind-kanal der TU Dresden 2007
04/2007 31 L¨uers & Bareiss The Arctic Turbulence Experiment 2006 PART 1:
Technical documentation of the ARCTEX 2006 campaign, May, 2nd to May, 20th 2006
07/2007
32 L¨uers & Bareiss The Arctic Turbulence Experiment 2006 PART 2:
Visualization of near surface measurements dur-ing the ARCTEX 2006 campaign, May, 2nd to May, 20th 2006
07/2007
33 Bareiss & L¨uers The Arctic Turbulence Experiment 2006 PART 3:
Aerological measurements during the ARCTEX 2006 campaign, May, 2nd to May, 20th 2006
07/2007
34 Metzger & Fo-ken et al.
COPS experiment, Convective and orographically induced precipitation study, 01 June 2007 – 31 August 2007, Documentation
09/2007
to be continued on next page
Nr Author(s) Title Year 35 Staudt & Foken Documentation of reference data for the
experi-mental areas of the Bayreuth Centre for Ecology and Environmental Research (BayCEER) at the Waldstein site
11/2007
36 Serafimovich et al.
ExchanGE processes in mountainous Regions (EGER): Documentation of the Intensive Obser-vation Period (IOP1) September, 6th to October, 7th 2007
01/2008
37 Serafimovich et al.
ExchanGE processes in mountainous Regions (EGER): Documentation of the Intensive Obser-vation Period (IOP2) June, 1st to July, 15th2008
09/2008
38 Siebicke Footprint synthesis for the FLUXNET site Waldstein/Weidenbrunnen (DE-Bay) during the EGER experiment
12/2008