Globular structures in roots accumulate phosphorus to extremely high concentrations following phosphorus addition
Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old soil‐grown Trifolium subterraneum plants, and 2‐week‐old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In...
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| Published in | Plant, cell and environment Vol. 42; no. 6; pp. 1987 - 2002 |
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| Main Authors | , , , , , , , , , , , , , |
| Format | Journal Article |
| Language | English |
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01.06.2019
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| Abstract | Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old soil‐grown Trifolium subterraneum plants, and 2‐week‐old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X‐ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg−1). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg−1), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up‐regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi‐transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high‐P availability.
We examined clover roots after inorganic phosphorus (Pi) addition. Although vacuolar P concentration was unchanged, unexpectedly, P accumulated in intracellular globular structures and genes similar to plastid envelope Pi transporters were up‐regulated. The structures likely aid cytosolic Pi homeostasis. |
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| AbstractList | Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old soil‐grown
Trifolium subterraneum
plants, and 2‐week‐old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X‐ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg
−1
). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg
−1
), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the
T. subterraneum
reference genome assembly and transcriptome profiles. Among the most up‐regulated genes after 4 hr was
TSub_g9430.t1
, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi‐transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high‐P availability.
We examined clover roots after inorganic phosphorus (Pi) addition. Although vacuolar P concentration was unchanged, unexpectedly, P accumulated in intracellular globular structures and genes similar to plastid envelope Pi transporters were up‐regulated. The structures likely aid cytosolic Pi homeostasis. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P-sufficient 6-week-old soil-grown Trifolium subterraneum plants, and 2-week-old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X-ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg-1 ). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg-1 ), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up-regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi-transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high-P availability.Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P-sufficient 6-week-old soil-grown Trifolium subterraneum plants, and 2-week-old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X-ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg-1 ). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg-1 ), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up-regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi-transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high-P availability. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P-sufficient 6-week-old soil-grown Trifolium subterraneum plants, and 2-week-old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X-ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg ). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg ), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up-regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi-transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high-P availability. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P-sufficient 6-week-old soil-grown Trifolium subterraneum plants, and 2-week-old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X-ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg −1 ). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg −1 ), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up-regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi-transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high-P availability. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old soil‐grown Trifolium subterraneum plants, and 2‐week‐old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X‐ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg−1). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg−1), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up‐regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi‐transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high‐P availability. We examined clover roots after inorganic phosphorus (Pi) addition. Although vacuolar P concentration was unchanged, unexpectedly, P accumulated in intracellular globular structures and genes similar to plastid envelope Pi transporters were up‐regulated. The structures likely aid cytosolic Pi homeostasis. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old soil‐grown Trifolium subterraneum plants, and 2‐week‐old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X‐ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg−1). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg−1), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up‐regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi‐transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high‐P availability. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old soil‐grown Trifolium subterraneum plants, and 2‐week‐old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X‐ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg⁻¹). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg⁻¹), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up‐regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi‐transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high‐P availability. Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P-sufficient 6-week-old soil-grown Trifolium subterraneum plants, and 2-week-old seedlings in solution culture, accumulated P in roots after inorganic P (Pi) addition. In contrast to our expectation that vacuoles would accumulate excess P, after 7 days, X-ray microanalysis showed that vacuolar [P] remained low (<12 mmol kg −1 ). However, in the plants after P addition, some cortex cells contained globular structures extraordinarily rich in P (often >3,000 mmol kg −1 ), potassium, magnesium, and sodium. Similar structures were evident in seedlings, both before and after P addition, with their [P] increasing threefold after P addition. Nuclear magnetic resonance (NMR) spectroscopy showed seedling roots accumulated Pi following P addition, and transmission electron microscopy (TEM) revealed large plastids. For seedlings, we demonstrated that roots differentially expressed genes after P addition using RNAseq mapped to the T. subterraneum reference genome assembly and transcriptome profiles. Among the most up-regulated genes after 4 hr was TSub_g9430.t1, which is similar to plastid envelope Pi transporters (PHT4;1, PHT4;4): expression of vacuolar Pi-transporter homologs did not change. We suggest that subcellular P accumulation in globular structures, which may include plastids, aids cytosolic Pi homeostasis under high-P availability. |
| Author | Keeble‐Gagnère, Gabriel Maruyama, Hayato Ryan, Megan H. Clode, Peta L. Ezawa, Tatsuhiro Van Aken, Olivier Lambers, Hans Millar, A. Harvey Appels, Rudi Smernik, Ronald J. Doolette, Ashlea L. Kaur, Parwinder Nazeri, Nazanin K. Nicol, Dion |
| Author_xml | – sequence: 1 givenname: Megan H. orcidid: 0000-0003-0749-0199 surname: Ryan fullname: Ryan, Megan H. email: megan.ryan@uwa.edu.au organization: The University of Western Australia – sequence: 2 givenname: Parwinder surname: Kaur fullname: Kaur, Parwinder organization: The University of Western Australia – sequence: 3 givenname: Nazanin K. surname: Nazeri fullname: Nazeri, Nazanin K. organization: The University of Western Australia – sequence: 4 givenname: Peta L. surname: Clode fullname: Clode, Peta L. organization: The University of Western Australia – sequence: 5 givenname: Gabriel surname: Keeble‐Gagnère fullname: Keeble‐Gagnère, Gabriel organization: AgriBio – sequence: 6 givenname: Ashlea L. surname: Doolette fullname: Doolette, Ashlea L. organization: Food and Wine and Waite Research Institute, The University of Adelaide, Waite Campus – sequence: 7 givenname: Ronald J. surname: Smernik fullname: Smernik, Ronald J. organization: Food and Wine and Waite Research Institute, The University of Adelaide, Waite Campus – sequence: 8 givenname: Olivier orcidid: 0000-0003-4024-968X surname: Van Aken fullname: Van Aken, Olivier organization: Lund University – sequence: 9 givenname: Dion surname: Nicol fullname: Nicol, Dion organization: Western Australia, Dryland Research Institute – sequence: 10 givenname: Hayato surname: Maruyama fullname: Maruyama, Hayato organization: Hokkaido University – sequence: 11 givenname: Tatsuhiro surname: Ezawa fullname: Ezawa, Tatsuhiro organization: Hokkaido University – sequence: 12 givenname: Hans surname: Lambers fullname: Lambers, Hans organization: The University of Western Australia – sequence: 13 givenname: A. Harvey orcidid: 0000-0001-9679-1473 surname: Millar fullname: Millar, A. Harvey organization: The University of Western Australia – sequence: 14 givenname: Rudi surname: Appels fullname: Appels, Rudi organization: University of Melbourne, Bioscience |
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| Snippet | Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P‐sufficient 6‐week‐old... Crops with improved uptake of fertilizer phosphorus (P) would reduce P losses and confer environmental benefits. We examined how P-sufficient 6-week-old... |
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| StartPage | 1987 |
| SubjectTerms | Agricultural and Veterinary sciences Agricultural Biotechnology Agricultural Sciences Biologi Biological Sciences Biological Transport Bioteknologi med applikationer på växter och djur Botanik Botany Cell culture cortex crops ecosystem services Fertilizers Gene expression gene expression regulation Gene Expression Regulation, Plant Genes genome assembly Genomes Homeostasis Homology inorganic phosphorus Lantbruksvetenskap och veterinärmedicin Magnesium Magnesium - metabolism Natural Sciences Naturvetenskap NMR Nuclear magnetic resonance nuclear magnetic resonance spectroscopy phosphorous efficient crops Phosphorus Phosphorus - metabolism Plant Biotechnology Plant Biotechnology (including Forest Biotechnology) Plant Roots - cytology Plant Roots - genetics Plant Roots - metabolism Plastids Plastids - metabolism potassium Potassium - metabolism Roots Seedlings Seedlings - cytology Seedlings - metabolism Sodium Sodium - metabolism Soil - chemistry Spectroscopy Transcriptome Transmission electron microscopy transporters Trifolium - genetics Trifolium - growth & development Trifolium - metabolism Trifolium subterraneum Vacuoles Vacuoles - metabolism Växtbioteknologi Växtbioteknologi (Här ingår: Skogsbioteknologi) X-radiation X-ray microanalysis |
| Title | Globular structures in roots accumulate phosphorus to extremely high concentrations following phosphorus addition |
| URI | https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fpce.13531 https://www.ncbi.nlm.nih.gov/pubmed/30734927 https://www.proquest.com/docview/2227653650 https://www.proquest.com/docview/2197891519 https://www.proquest.com/docview/2253256890 https://lup.lub.lu.se/record/4cdafe06-3df2-495c-990a-b9a561c7de0e oai:portal.research.lu.se:publications/4cdafe06-3df2-495c-990a-b9a561c7de0e |
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