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- 01GQM1X92G38EC9PSVZMFSPC3Q classification A1.
- 01GQM1X92G38EC9PSVZMFSPC3Q date "2023".
- 01GQM1X92G38EC9PSVZMFSPC3Q language "eng".
- 01GQM1X92G38EC9PSVZMFSPC3Q type journalArticle.
- 01GQM1X92G38EC9PSVZMFSPC3Q hasPart 01H3YXWC27V623YJSDV0QVEAB2.pdf.
- 01GQM1X92G38EC9PSVZMFSPC3Q hasPart 01H4115H28B846Y1K5N88BJXC1.pdf.
- 01GQM1X92G38EC9PSVZMFSPC3Q subject "Agriculture and Food Sciences".
- 01GQM1X92G38EC9PSVZMFSPC3Q doi "10.1111/nph.18547".
- 01GQM1X92G38EC9PSVZMFSPC3Q issn "0028-646X".
- 01GQM1X92G38EC9PSVZMFSPC3Q issn "1469-8137".
- 01GQM1X92G38EC9PSVZMFSPC3Q issue "2".
- 01GQM1X92G38EC9PSVZMFSPC3Q volume "237".
- 01GQM1X92G38EC9PSVZMFSPC3Q abstract "During stem elongation, wheat (Triticum aestivum) increases its stem carbohydrate content before anthesis as a reserve for grain filling. Hydraulic functioning during this mobilization process is not well understood, and contradictory results exist on the direct effect of drought on carbohydrate mobilization. In a dedicated experiment, wheat plants were subjected to drought stress during carbohydrate mobilization. Measurements, important to better understand stem physiology, showed some unexpected patterns that could not be explained by our current knowledge on water transport. Traditional water flow and storage models failed to properly describe the drought response in wheat stems during carbohydrate mobilization. To explain the measured patterns, hypotheses were formulated and integrated in a dedicated model for wheat. The new mechanistic model simulates two hypothetical water storage compartments: one where water is quickly exchanged with the xylem and one that contains the carbohydrate storage. Water exchange between these compartments is turgor-driven. The model was able to simulate the measured increase in stored carbohydrate concentrations with a decrease in water content and stem diameter. Calibration of the model showed the importance of turgor-driven apoplastic water flow during carbohydrate mobilization. This resulted in an increase in stem hydraulic capacitance, which became more important under drought stress.".
- 01GQM1X92G38EC9PSVZMFSPC3Q author 27C11D68-0841-11E7-8630-A6D6AD28A064.
- 01GQM1X92G38EC9PSVZMFSPC3Q author 32E54D6A-9D86-11E7-A063-6475AD28A064.
- 01GQM1X92G38EC9PSVZMFSPC3Q author 35745962-F0EE-11E1-A9DE-61C894A0A6B4.
- 01GQM1X92G38EC9PSVZMFSPC3Q author F605A5E2-F0ED-11E1-A9DE-61C894A0A6B4.
- 01GQM1X92G38EC9PSVZMFSPC3Q author F8CB6064-F0ED-11E1-A9DE-61C894A0A6B4.
- 01GQM1X92G38EC9PSVZMFSPC3Q author urn:uuid:ab1cb872-bc17-4733-abe6-e8a9a2659d1e.
- 01GQM1X92G38EC9PSVZMFSPC3Q dateCreated "2023-01-25T08:50:00Z".
- 01GQM1X92G38EC9PSVZMFSPC3Q dateModified "2024-12-12T18:00:31Z".
- 01GQM1X92G38EC9PSVZMFSPC3Q name "Mechanistic modeling reveals the importance of turgor-driven apoplastic water transport in wheat stem parenchyma during carbohydrate mobilization".
- 01GQM1X92G38EC9PSVZMFSPC3Q pagination urn:uuid:6ce1d57f-4d19-47fe-8a65-f035e57b3833.
- 01GQM1X92G38EC9PSVZMFSPC3Q sameAs LU-01GQM1X92G38EC9PSVZMFSPC3Q.
- 01GQM1X92G38EC9PSVZMFSPC3Q sourceOrganization urn:uuid:18b2cd0e-49c7-41e9-979a-9960c27e90c2.
- 01GQM1X92G38EC9PSVZMFSPC3Q type A1.