FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4293208111> ?p ?o ?g. }

• W4293208111 endingPage "819" @default.
• W4293208111 startingPage "790" @default.
• W4293208111 abstract "In arid and semi-arid regions, the growth and development of cultivated plants, especially tomato (Solanum lycopersicum L.), are severely limited by water deficit. Thus, to cope with this constraint, the plant establishes symbiotic relationships with arbuscular mycorrhizal fungi (AMF) in the soil whose extension of the hyphae allows a better and deeper exploration; this notably improves the hydromineral nutrition of the plant. Therefore, the choice of fungal partner becomes crucial for the establishment of a crop in water-deficient soil. In this context, the contribution of AMF to the water stress tolerance of two varieties of tomato plants was assessed under semi-controlled conditions. Parameters, such as the mycorrhizal frequency, intensity of mycorrhization, relative mycorrhizal dependency, growth, and biochemical parameters (carbon, nitrogen, phosphorus, and proline contents) of plants subjected to three levels of water stress (T100, T70, and T30), were evaluated. The highest frequencies and intensities of mycorrhization and relative mycorrhizal dependencies were obtained with plants of the Xewel variety inoculated with Rhizophagus fasciculatus (F: 95.24%, 88.35%, and 13.64%; M: 40.52%, 37.52%, and 11.22%; D: 23.7%, 54.4%, and 78.82%) and in those of the Lady Nema variety inoculated with Claroideoglomus etunicatum (F: 95.12%, 87.01%, and 15.25%; M: 40.66%, 37.99%, and 11.42%; D: 19.27%, 57.01%, and 70.98%), respectively at water regimes of T100, T70 and T30. These same symbiotic couples recorded, at T30, the best survival rates (+ 40%) and the higher aerial (77% and 74%) and root dry weights (80% and 59%). Plants of the Xewel variety inoculated with R. fasciculatus recorded the highest contents of carbon (T70: 30.59% and T30: 21.55%) and phosphorus (T70: 0.18% and T30: 0.17%). Plants of the Lady Nema variety recorded the highest nitrogen contents with 3.51% and 3.20%, respectively at T70 and T30. Plants of the Lady Nema variety, inoculated with C. etunicatum, also recorded the highest proline contents (572.25, 739.44, and 1165 nmoles•g−1 of fresh material), followed by those of the Xewel variety inoculated with R. fasciculatus (580.36, 763.65, and 1112.11 nmoles•g−1 of fresh matter), respectively at T100, T70, and T30. For the Lady Nema variety, the best fungal partner is C. etunicatum, followed by R. fasciculatus and, finally, Funneliformis mosseae. However, for the plants of the Xewel variety, R. fasciculatus is the most efficient, followed by F. mosseae and C. etunicatum. This suggests that, in tomatoes, the efficiency of mycorrhizal symbiosis under water stress conditions is not only dependent on the host plant but on both associated symbiotic partners. Hence, it is a need for screening to identify the best symbiotic couples in a stressful environment." @default.
• W4293208111 created "2022-08-27" @default.
• W4293208111 creator A5005903082 @default.
• W4293208111 creator A5015004690 @default.
• W4293208111 creator A5036026325 @default.
• W4293208111 creator A5046779955 @default.
• W4293208111 creator A5076775109 @default.
• W4293208111 creator A5079423829 @default.
• W4293208111 date "2022-01-01" @default.
• W4293208111 modified "2023-10-02" @default.
• W4293208111 title "Response to Inoculation with Arbuscular Mycorrhizal Fungi of Two Tomato (&lt;i&gt;Solanum lycopersicum&lt;/i&gt; L.) Varieties Subjected to Water Stress under Semi-Controlled Conditions" @default.
• W4293208111 cites W1515619857 @default.
• W4293208111 cites W1538500367 @default.
• W4293208111 cites W1568187756 @default.
• W4293208111 cites W1584901111 @default.
• W4293208111 cites W1693733067 @default.
• W4293208111 cites W184392188 @default.
• W4293208111 cites W1944875260 @default.
• W4293208111 cites W1964965187 @default.
• W4293208111 cites W1966364875 @default.
• W4293208111 cites W1970546603 @default.
• W4293208111 cites W1971146117 @default.
• W4293208111 cites W1976457618 @default.
• W4293208111 cites W1976592296 @default.
• W4293208111 cites W1980716845 @default.
• W4293208111 cites W1981642076 @default.
• W4293208111 cites W1992162755 @default.
• W4293208111 cites W1993079205 @default.
• W4293208111 cites W1995471938 @default.
• W4293208111 cites W1995768031 @default.
• W4293208111 cites W2002555620 @default.
• W4293208111 cites W2005698075 @default.
• W4293208111 cites W2006020122 @default.
• W4293208111 cites W2011281099 @default.
• W4293208111 cites W2020129986 @default.
• W4293208111 cites W2023075902 @default.
• W4293208111 cites W2027307225 @default.
• W4293208111 cites W2029823714 @default.
• W4293208111 cites W2030239188 @default.
• W4293208111 cites W2044769272 @default.
• W4293208111 cites W2046789176 @default.
• W4293208111 cites W2055356015 @default.
• W4293208111 cites W2055667729 @default.
• W4293208111 cites W2060575050 @default.
• W4293208111 cites W2068592301 @default.
• W4293208111 cites W2072802542 @default.
• W4293208111 cites W2073074633 @default.
• W4293208111 cites W2077188405 @default.
• W4293208111 cites W2080239490 @default.
• W4293208111 cites W2085258124 @default.
• W4293208111 cites W2086314122 @default.
• W4293208111 cites W2086532896 @default.
• W4293208111 cites W2091160252 @default.
• W4293208111 cites W2096582254 @default.
• W4293208111 cites W2100750602 @default.
• W4293208111 cites W2101428171 @default.
• W4293208111 cites W2110587939 @default.
• W4293208111 cites W2111234886 @default.
• W4293208111 cites W2116925311 @default.
• W4293208111 cites W2133196571 @default.
• W4293208111 cites W2135572188 @default.
• W4293208111 cites W2137228539 @default.
• W4293208111 cites W2144950892 @default.
• W4293208111 cites W2159108499 @default.
• W4293208111 cites W2164960325 @default.
• W4293208111 cites W2169568184 @default.
• W4293208111 cites W2338615089 @default.
• W4293208111 cites W2475675673 @default.
• W4293208111 cites W2765301024 @default.
• W4293208111 cites W2797603830 @default.
• W4293208111 cites W2883575878 @default.
• W4293208111 cites W2889500519 @default.
• W4293208111 cites W2897284484 @default.
• W4293208111 cites W2962708044 @default.
• W4293208111 cites W3001420334 @default.
• W4293208111 cites W3169566079 @default.
• W4293208111 doi "https://doi.org/10.4236/as.2022.136051" @default.
• W4293208111 hasPublicationYear "2022" @default.
• W4293208111 type Work @default.
• W4293208111 citedByCount "0" @default.
• W4293208111 crossrefType "journal-article" @default.
• W4293208111 hasAuthorship W4293208111A5005903082 @default.
• W4293208111 hasAuthorship W4293208111A5015004690 @default.
• W4293208111 hasAuthorship W4293208111A5036026325 @default.
• W4293208111 hasAuthorship W4293208111A5046779955 @default.
• W4293208111 hasAuthorship W4293208111A5076775109 @default.
• W4293208111 hasAuthorship W4293208111A5079423829 @default.
• W4293208111 hasBestOaLocation W42932081111 @default.
• W4293208111 hasConcept C137580998 @default.
• W4293208111 hasConcept C144027150 @default.
• W4293208111 hasConcept C150772632 @default.
• W4293208111 hasConcept C151730666 @default.
• W4293208111 hasConcept C178790620 @default.
• W4293208111 hasConcept C180032290 @default.
• W4293208111 hasConcept C185592680 @default.
• W4293208111 hasConcept C2779343474 @default.
• W4293208111 hasConcept C2779815552 @default.
• W4293208111 hasConcept C2781083041 @default.

• next