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10.1002/pld3.312 | 96 | uously and accurately measured NO3 beyond the critical level, results in reduction in growth and at any stage of the plant growth and the experiment. Tomatoes grown biomass accumulation (Gastal & Lemaire, 2002) as well as shoot to in the aeroponic system were less sensitive to sali | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |
10.1002/pld3.312 | 97 | nity. In aeroponics, root ratios (Bennett et al., 1989). The reason for the nonsignificant nitrate supply to the plants can be minimized without significant reducdifference in total biomass between tomatoes supplied with 4 and tion of the plant performances due to high nitrate uptake. The | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |
10.1002/pld3.312 | 98 | most 8 mM NO3 is that the plants might have reached the NO3 critical content for maximum growth rate. interesting aspect of our findings is the continuous estimation of exact amount of water transpired by plant at any given time. TAFESSE ET Al. 8 of 8 | AC K N OW L E D G M | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |
10.1002/pld3.312 | 99 | E N T S The authors thank Yuval Shani for his skillful assistance with the operation and maintenance of the system, Liron Summerfield for all her great help. C O N FL I C T O F I N T E R E S T The authors declare that they have no competing interests. AU T H O R S ’ C O N T R I B | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |
10.1002/pld3.312 | 100 | U T I O N S EGT performed the experiment, analyzed data, and helped in writing the manuscript. MKA organized the data and helped in summarizing and writing the manuscript. NL designed the experiment. NL and SR supervised the discussion of the results. NL and SR were in charge of the researc | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |
10.1002/pld3.312 | 101 | h project. All authors read and approved the manuscript. O R C I D Endale Geta Tafesse https://orcid.org/0000-0001-6967-0756 Moses Kwame Aidoo https://orcid.org/0000-0003-0183-4771 Naftali Lazarovitch https://orcid.org/0000-0002-3630-5696 Shimon Rachmilevitch https://orcid.org/0 | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |
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10.1002/pld3.312 | 121 | formation section. How to cite this article: Tafesse EG, Aidoo MK, Lazarovitch N, Rachmilevitch S. Aeroponic systems: A unique tool for estimating plant water relations and NO3 uptake in response to salinity stress. Plant Direct. 2021;5:e00312. https://doi. org/10.1002/pld3.312 TAFESSE ET Al. | Aeroponic systems: A unique tool for estimating plant waterrelations and NO3 uptake in response to salinity stress | Unknown Author |