Variability in the Water Footprint of Arable Crop Production across European Regions

2017
Authors
Gobin, Anne
Kersebaum, Kurt Christian

Eitzinger, Josef
Trnka, Miroslav

Hlavinka, Petr
Takac, Jozef
Kroes, Joop
Ventrella, Domenico

Dalla Marta, Anna
Deelstra, Johannes
Lalić, Branislava
Nejedlik, Pavol
Orlandini, Simone
Peltonen-Sainio, Pirjo
Rajala, Ari
Saue, Triin
Saylan, Levent

Stričević, Ružica

Vucetić, Visnja
Zoumides, Christos

Article (Published version)
Metadata
Show full item recordAbstract
Crop growth and yield are affected by water use during the season: the green water footprint (WF) accounts for rain water, the blue WF for irrigation and the grey WF for diluting agri-chemicals. We calibrated crop yield for FAO's water balance model " Aquacrop" at field level. We collected weather, soil and crop inputs for 45 locations for the period 1992-2012. Calibrated model runs were conducted for wheat, barley, grain maize, oilseed rape, potato and sugar beet. The WF of cereals could be up to 20 times larger than the WF of tuber and root crops; the largest share was attributed to the green WF. The green and blue WF compared favourably with global benchmark values (R2 = 0.64-0.80; d = 0.91-0.95). The variability in the WF of arable crops across different regions in Europe is mainly due to variability in crop yield (cv = 45%) and to a lesser extent to variability in crop water use (cv = 21%). The WF variability between countries (cv = 14%) is lower than the variability between seaso...ns (cv = 22%) and between crops (cv = 46%). Though modelled yields increased up to 50% under sprinkler irrigation, the water footprint still increased between 1% and 25%. Confronted with drainage and runoff, the grey WF tended to overestimate the contribution of nitrogen to the surface and groundwater. The results showed that the water footprint provides a measurable indicator that may support European water governance.
Keywords:
water footprint / arable crops / cereals / Europe / crop water use / yieldSource:
Water (Switzerland), 2017, 9, 2Publisher:
- MDPI AG, BASEL
Funding / projects:
- COSTEuropean Cooperation in Science and Technology (COST) [ES1106]
- Belgian Science PolicyBelgian Federal Science Policy Office [SD/RI/03A]
- BLE Germany, the Czech [2812ERA 147, LD13030]
- Ministry of Education, Youth and Sports of the Czech Republic within the National Sustainability Program I (NPU I) [LO1415, III43007]
DOI: 10.3390/w9020093
ISSN: 2073-4441
WoS: 000395435800023
Scopus: 2-s2.0-85013846374
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Institution/Community
Poljoprivredni fakultetTY - JOUR AU - Gobin, Anne AU - Kersebaum, Kurt Christian AU - Eitzinger, Josef AU - Trnka, Miroslav AU - Hlavinka, Petr AU - Takac, Jozef AU - Kroes, Joop AU - Ventrella, Domenico AU - Dalla Marta, Anna AU - Deelstra, Johannes AU - Lalić, Branislava AU - Nejedlik, Pavol AU - Orlandini, Simone AU - Peltonen-Sainio, Pirjo AU - Rajala, Ari AU - Saue, Triin AU - Saylan, Levent AU - Stričević, Ružica AU - Vucetić, Visnja AU - Zoumides, Christos PY - 2017 UR - http://aspace.agrif.bg.ac.rs/handle/123456789/4396 AB - Crop growth and yield are affected by water use during the season: the green water footprint (WF) accounts for rain water, the blue WF for irrigation and the grey WF for diluting agri-chemicals. We calibrated crop yield for FAO's water balance model " Aquacrop" at field level. We collected weather, soil and crop inputs for 45 locations for the period 1992-2012. Calibrated model runs were conducted for wheat, barley, grain maize, oilseed rape, potato and sugar beet. The WF of cereals could be up to 20 times larger than the WF of tuber and root crops; the largest share was attributed to the green WF. The green and blue WF compared favourably with global benchmark values (R2 = 0.64-0.80; d = 0.91-0.95). The variability in the WF of arable crops across different regions in Europe is mainly due to variability in crop yield (cv = 45%) and to a lesser extent to variability in crop water use (cv = 21%). The WF variability between countries (cv = 14%) is lower than the variability between seasons (cv = 22%) and between crops (cv = 46%). Though modelled yields increased up to 50% under sprinkler irrigation, the water footprint still increased between 1% and 25%. Confronted with drainage and runoff, the grey WF tended to overestimate the contribution of nitrogen to the surface and groundwater. The results showed that the water footprint provides a measurable indicator that may support European water governance. PB - MDPI AG, BASEL T2 - Water (Switzerland) T1 - Variability in the Water Footprint of Arable Crop Production across European Regions IS - 2 VL - 9 DO - 10.3390/w9020093 ER -
@article{ author = "Gobin, Anne and Kersebaum, Kurt Christian and Eitzinger, Josef and Trnka, Miroslav and Hlavinka, Petr and Takac, Jozef and Kroes, Joop and Ventrella, Domenico and Dalla Marta, Anna and Deelstra, Johannes and Lalić, Branislava and Nejedlik, Pavol and Orlandini, Simone and Peltonen-Sainio, Pirjo and Rajala, Ari and Saue, Triin and Saylan, Levent and Stričević, Ružica and Vucetić, Visnja and Zoumides, Christos", year = "2017", abstract = "Crop growth and yield are affected by water use during the season: the green water footprint (WF) accounts for rain water, the blue WF for irrigation and the grey WF for diluting agri-chemicals. We calibrated crop yield for FAO's water balance model " Aquacrop" at field level. We collected weather, soil and crop inputs for 45 locations for the period 1992-2012. Calibrated model runs were conducted for wheat, barley, grain maize, oilseed rape, potato and sugar beet. The WF of cereals could be up to 20 times larger than the WF of tuber and root crops; the largest share was attributed to the green WF. The green and blue WF compared favourably with global benchmark values (R2 = 0.64-0.80; d = 0.91-0.95). The variability in the WF of arable crops across different regions in Europe is mainly due to variability in crop yield (cv = 45%) and to a lesser extent to variability in crop water use (cv = 21%). The WF variability between countries (cv = 14%) is lower than the variability between seasons (cv = 22%) and between crops (cv = 46%). Though modelled yields increased up to 50% under sprinkler irrigation, the water footprint still increased between 1% and 25%. Confronted with drainage and runoff, the grey WF tended to overestimate the contribution of nitrogen to the surface and groundwater. The results showed that the water footprint provides a measurable indicator that may support European water governance.", publisher = "MDPI AG, BASEL", journal = "Water (Switzerland)", title = "Variability in the Water Footprint of Arable Crop Production across European Regions", number = "2", volume = "9", doi = "10.3390/w9020093" }
Gobin, A., Kersebaum, K. C., Eitzinger, J., Trnka, M., Hlavinka, P., Takac, J., Kroes, J., Ventrella, D., Dalla Marta, A., Deelstra, J., Lalić, B., Nejedlik, P., Orlandini, S., Peltonen-Sainio, P., Rajala, A., Saue, T., Saylan, L., Stričević, R., Vucetić, V.,& Zoumides, C.. (2017). Variability in the Water Footprint of Arable Crop Production across European Regions. in Water (Switzerland) MDPI AG, BASEL., 9(2). https://doi.org/10.3390/w9020093
Gobin A, Kersebaum KC, Eitzinger J, Trnka M, Hlavinka P, Takac J, Kroes J, Ventrella D, Dalla Marta A, Deelstra J, Lalić B, Nejedlik P, Orlandini S, Peltonen-Sainio P, Rajala A, Saue T, Saylan L, Stričević R, Vucetić V, Zoumides C. Variability in the Water Footprint of Arable Crop Production across European Regions. in Water (Switzerland). 2017;9(2). doi:10.3390/w9020093 .
Gobin, Anne, Kersebaum, Kurt Christian, Eitzinger, Josef, Trnka, Miroslav, Hlavinka, Petr, Takac, Jozef, Kroes, Joop, Ventrella, Domenico, Dalla Marta, Anna, Deelstra, Johannes, Lalić, Branislava, Nejedlik, Pavol, Orlandini, Simone, Peltonen-Sainio, Pirjo, Rajala, Ari, Saue, Triin, Saylan, Levent, Stričević, Ružica, Vucetić, Visnja, Zoumides, Christos, "Variability in the Water Footprint of Arable Crop Production across European Regions" in Water (Switzerland), 9, no. 2 (2017), https://doi.org/10.3390/w9020093 . .