Dynamics of soil water content in the rhizosphere
Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has different properties than the bulk soil, effects of the rhizosphere on root water uptake are commonly neglected. To investigate the rhizospher...
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Published in | Plant and soil Vol. 332; no. 1-2; pp. 163 - 176 |
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Main Authors | , , , , , , , |
Format | Journal Article |
Language | English |
Published |
Dordrecht
Dordrecht : Springer Netherlands
01.07.2010
Springer Springer Netherlands Springer Nature B.V |
Subjects | |
Online Access | Get full text |
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Abstract | Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has different properties than the bulk soil, effects of the rhizosphere on root water uptake are commonly neglected. To investigate the rhizosphere's properties we used neutron radiography to image water content distributions in soil samples planted with lupins during drying and subsequent rewetting. During drying, the water content in the rhizosphere was 0.05 larger than in the bulk soil. Immediately after rewetting, the picture reversed and the rhizosphere remained markedly dry. During the following days the water content of the rhizosphere increased and after 60 h it exceeded that of the bulk soil. The rhizosphere's thickness was approximately 1.5 mm. Based on the observed dynamics, we derived the distinct, hysteretic and time-dependent water retention curve of the rhizosphere. Our hypothesis is that the rhizosphere's water retention curve was determined by mucilage exuded by roots. The rhizosphere properties reduce water depletion around roots and weaken the drop of water potential towards roots, therefore favoring water uptake under dry conditions, as demonstrated by means of analytical calculation of water flow to a single root. |
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AbstractList | Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has different properties than the bulk soil, effects of the rhizosphere on root water uptake are commonly neglected. To investigate the rhizosphere's properties we used neutron radiography to image water content distributions in soil samples planted with lupins during drying and subsequent rewetting. During drying, the water content in the rhizosphere was 0.05 larger than in the bulk soil. Immediately after rewetting, the picture reversed and the rhizosphere remained markedly dry. During the following days the water content of the rhizosphere increased and after 60 h it exceeded that of the bulk soil. The rhizosphere's thickness was approximately 1.5 mm. Based on the observed dynamics, we derived the distinct, hysteretic and time-dependent water retention curve of the rhizosphere. Our hypothesis is that the rhizosphere's water retention curve was determined by mucilage exuded by roots. The rhizosphere properties reduce water depletion around roots and weaken the drop of water potential towards roots, therefore favoring water uptake under dry conditions, as demonstrated by means of analytical calculation of water flow to a single root. [PUBLICATION ABSTRACT] Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has different properties than the bulk soil, effects of the rhizosphere on root water uptake are commonly neglected. To investigate the rhizosphere’s properties we used neutron radiography to image water content distributions in soil samples planted with lupins during drying and subsequent rewetting. During drying, the water content in the rhizosphere was 0.05 larger than in the bulk soil. Immediately after rewetting, the picture reversed and the rhizosphere remained markedly dry. During the following days the water content of the rhizosphere increased and after 60 h it exceeded that of the bulk soil. The rhizosphere’s thickness was approximately 1.5 mm. Based on the observed dynamics, we derived the distinct, hysteretic and time-dependent water retention curve of the rhizosphere. Our hypothesis is that the rhizosphere’s water retention curve was determined by mucilage exuded by roots. The rhizosphere properties reduce water depletion around roots and weaken the drop of water potential towards roots, therefore favoring water uptake under dry conditions, as demonstrated by means of analytical calculation of water flow to a single root. Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has different properties than the bulk soil, effects of the rhizosphere on root water uptake are commonly neglected. To investigate the rhizosphere's properties we used neutron radiography to image water content distributions in soil samples planted with lupins during drying and subsequent rewetting. During drying, the water content in the rhizosphere was 0.05 larger than in the bulk soil. Immediately after rewetting, the picture reversed and the rhizosphere remained markedly dry. During the following days the water content of the rhizosphere increased and after 60 h it exceeded that of the bulk soil. The rhizosphere's thickness was approximately 1.5 mm. Based on the observed dynamics, we derived the distinct, hysteretic and time-dependent water retention curve of the rhizosphere. Our hypothesis is that the rhizosphere's water retention curve was determined by mucilage exuded by roots. The rhizosphere properties reduce water depletion around roots and weaken the drop of water potential towards roots, therefore favoring water uptake under dry conditions, as demonstrated by means of analytical calculation of water flow to a single root. Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has different properties than the bulk soil, effects of the rhizosphere on root water uptake are commonly neglected. To investigate the rhizosphere's properties we used neutron radiography to image water content distributions in soil samples planted with lupins during drying and subsequent rewetting. During drying, the water content in the rhizosphere was 0.05 larger than in the bulk soil. Immediately after rewetting, the picture reversed and the rhizosphere remained markedly dry. During the following days the water content of the rhizosphere increased and after 60 h it exceeded that of the bulk soil. The rhizosphere's thickness was approximately 1.5 mm. Based on the observed dynamics, we derived the distinct, hysteretic and time-dependent water retention curve of the rhizosphere. Our hypothesis is that the rhizosphere's water retention curve was determined by mucilage exuded by roots. The rhizosphere properties reduce water depletion around roots and weaken the drop of water potential towards roots, therefore favoring water uptake under dry conditions, as demonstrated by means of analytical calculation of water flow to a single root. Keywords Root water uptake * Water retention curve * Rhizosphere * Neutron radiography * Mucilage * Hysteresis |
Audience | Academic |
Author | Lehmann, Eberhard Carminati, Andrea Moradi, Ahmad B. Vontobel, Peter Vogel, Hans-Jörg Weller, Ulrich Vetterlein, Doris Oswald, Sascha E. |
Author_xml | – sequence: 1 fullname: Carminati, Andrea – sequence: 2 fullname: Moradi, Ahmad B – sequence: 3 fullname: Vetterlein, Doris – sequence: 4 fullname: Vontobel, Peter – sequence: 5 fullname: Lehmann, Eberhard – sequence: 6 fullname: Weller, Ulrich – sequence: 7 fullname: Vogel, Hans-Jörg – sequence: 8 fullname: Oswald, Sascha E |
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Issue | 1-2 |
Keywords | Neutron radiography Rhizosphere Root water uptake Water retention curve Mucilage Hysteresis Dynamic characteristic Root Nuclear method Soil moisture Property of soil Physical properties Soil water properties Vegetative apparatus Water absorption Soil plant relation Water holding capacity Physical method |
Language | English |
License | CC BY 4.0 |
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PublicationDate | 2010-07-01 |
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PublicationPlace | Dordrecht |
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PublicationSubtitle | An International Journal on Plant-Soil Relationships |
PublicationTitle | Plant and soil |
PublicationTitleAbbrev | Plant Soil |
PublicationYear | 2010 |
Publisher | Dordrecht : Springer Netherlands Springer Springer Netherlands Springer Nature B.V |
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References | Hallett, Gordon, Bengough (CR10) 2003; 157 Pleinert, Lehmann (CR23) 1997; 234 van Genuchten (CR38) 1980; 44 Pierret, Kirby, Moran (CR22) 2003; 255 Javaux, Schroeder, Vanderborght, Vereecken (CR13) 2008; 7 Whalley, Leeds-Harrison, Leech, Riseley, Bird (CR41) 2004; 169 Segal, Kushnir, Mualem, Shani (CR32) 2008; 7 Carminati, Vetterlein, Weller, Vogel, Oswald (CR1) 2009; 8 Lavelle (CR14) 2002; 17 Roose, Fowler (CR30) 2004; 228 van Dam, Stricker, Droogers (CR37) 1992; 56 Richards (CR27) 1928; 37 Garrigues, Doussan, Pierret (CR7) 2006; 283 Hainsworth, Aylmore (CR9) 1989; 113 Doussan, Pierret, Garrigues, Pages (CR4) 2006; 283 McCully, Boyer (CR15) 1997; 99 Nakanishi, Okuni, Hayashi, Nishiyama (CR19) 2005; 264 Mualem (CR18) 1976; 12 Siqueira, Katul, Porporato (CR34) 2008; 44 Watt, McCully, Canny (CR39) 1994; 106 Serra (CR33) 1982 Hinsinger, Bengough, Vetterlein, Young (CR12) 2009; 321 Gardner (CR6) 1960; 89 Tumlinson, Liu, Silk, Hopmans (CR36) 2008; 72 Chenu (CR2) 1993; 56 CR3 Richards, Wadleigh (CR28) 1952 Schneider, Attinger, Delfs, Hildebrandt (CR31) 2009; 6 Young (CR42) 1995; 130 Gregory (CR8) 2006; 57 Hassanein, Lehmann, Vontobel (CR11) 2005; 542 Oswald, Menon, Carminati, Vontobel, Lehmann, Schulin (CR21) 2008; 7 Read, Gregory (CR24) 1997; 137 Read, Gregory, Bell (CR25) 1999; 211 Watt, Silk, Passioura (CR40) 2006; 97 Foehse, Claassen, Jungk (CR5) 1991; 132 Or, Phutane, Dechesne (CR20) 2007; 6 Menon, Robinson, Oswald, Kaestner, Abbaspour, Lehmann, Schulin (CR16) 2007; 58 Roberson, Firestone (CR29) 1992; 58 Moradi, Conesa, Robinson, Lehmann, Kuehne, Kaestner, Oswald, Schulin (CR17) 2009; 318 Read, Bengough, Gregory, Crawford, Robinson, Scrimgeour, Young, Zhang, Zhang (CR26) 2003; 157 Strayer, Power, Fagan, Pickett, Belnap (CR35) 2003; 53 M Menon (283_CR16) 2007; 58 CL Schneider (283_CR31) 2009; 6 PD Hallett (283_CR10) 2003; 157 LG Tumlinson (283_CR36) 2008; 72 M Watt (283_CR39) 1994; 106 EB Roberson (283_CR29) 1992; 58 C Chenu (283_CR2) 1993; 56 IM Young (283_CR42) 1995; 130 A Pierret (283_CR22) 2003; 255 SE Oswald (283_CR21) 2008; 7 DB Read (283_CR24) 1997; 137 283_CR3 WR Gardner (283_CR6) 1960; 89 D Foehse (283_CR5) 1991; 132 J Serra (283_CR33) 1982 JC Dam van (283_CR37) 1992; 56 M Javaux (283_CR13) 2008; 7 P Hinsinger (283_CR12) 2009; 321 YA Mualem (283_CR18) 1976; 12 DB Read (283_CR26) 2003; 157 C Doussan (283_CR4) 2006; 283 JM Hainsworth (283_CR9) 1989; 113 ME McCully (283_CR15) 1997; 99 TM Nakanishi (283_CR19) 2005; 264 H Pleinert (283_CR23) 1997; 234 DL Strayer (283_CR35) 2003; 53 M Watt (283_CR40) 2006; 97 R Hassanein (283_CR11) 2005; 542 LA Richards (283_CR28) 1952 T Roose (283_CR30) 2004; 228 E Segal (283_CR32) 2008; 7 DB Read (283_CR25) 1999; 211 LA Richards (283_CR27) 1928; 37 MT Genuchten van (283_CR38) 1980; 44 AB Moradi (283_CR17) 2009; 318 WR Whalley (283_CR41) 2004; 169 D Or (283_CR20) 2007; 6 PJ Gregory (283_CR8) 2006; 57 E Garrigues (283_CR7) 2006; 283 P Lavelle (283_CR14) 2002; 17 A Carminati (283_CR1) 2009; 8 M Siqueira (283_CR34) 2008; 44 |
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Snippet | Water flow from soil to plants depends on the properties of the soil next to roots, the rhizosphere. Although several studies showed that the rhizosphere has... |
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SubjectTerms | Agronomy. Soil science and plant productions Animal, plant and microbial ecology Biological and medical sciences Biomedical and Life Sciences Biophysics Botany Drying Ecology Fundamental and applied biological sciences. Psychology General agronomy. Plant production Hydraulic measurements hysteresis Life Sciences Moisture Moisture content Mucilage Neutron radiography Physical properties Physics, chemistry, biochemistry and biology of agricultural and forest soils Plant Physiology Plant roots Plant Sciences Plants Radiography Regular Article Retention Rhizosphere Root water uptake Roots Samples Sand soils Soil dynamics Soil hydraulic properties Soil moisture Soil properties Soil science Soil Science & Conservation Soil sciences Soil water Soil water content Soil water retention Soil-plant relationships. Soil fertility Soil-plant relationships. Soil fertility. Fertilization. Amendments Water Water and solute dynamics Water content Water flow Water potential Water retention curve Water uptake |
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Title | Dynamics of soil water content in the rhizosphere |
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