FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4313201679> ?p ?o ?g. }

• W4313201679 endingPage "126710" @default.
• W4313201679 startingPage "126710" @default.
• W4313201679 abstract "To mitigate the climate change-induced water shortage and realize the sustainable development of agriculture, drip irrigation, a more efficient water-saving irrigation method, has been intensively implemented in most arid agricultural regions in the world. However, compared to traditional border irrigation, how drip irrigation affects the biophysical conditions in the cropland and how crops physiologically respond to changes in biophysical conditions in terms of water, heat and carbon exchange remain largely unknown. In view of the above situation, to reveal the mechanism of drip irrigation in improving spring wheat water productivity, paired field experiments based on drip irrigation and border irrigation were conducted to extensively monitor water and heat fluxes at a typical spring wheat field (Triticum aestivum L.) in Northwest China during 2017–2020. The results showed that drip irrigation improved yield by 10.3 % and crop water productivity (i.e., yield-to-evapotranspiration-ratio) by 15.6 %, but reduced LAI by 16.9 % in contrast with border irrigation. Under drip irrigation, the lateral development of spring wheat roots was promoted by higher soil temperature combined with frequent dry-wet alternation in the shallow soil layer (0–20 cm), which was the basis for efficient absorption of water and fertilizer, as well as efficient formation of photosynthate. Meanwhile, drip irrigation increased net radiation and decreased latent heat flux by inhibiting leaf growth, thereby increased sensible heat, causing a higher soil temperature (+1.10 ℃) and canopy temperature (+1.11 ℃). Further analysis proved that soil temperature was the key factor affecting yield formation. Based on the above conditions, the decrease in leaf distribution coefficient (−0.030) led to the decrease in evapotranspiration (−5.7 %) and the increase in ear distribution coefficient (+0.029). Therefore, drip irrigation emphasized the role of soil moisture in the soil-plant-atmosphere continuum, enhanced crop activity by increasing field temperature, especially soil temperature, and finally improved yield and water productivity via carbon reallocation. The study revealed the mechanism of drip irrigation for improving spring wheat yield, and would contribute to improving Earth system models in representing agricultural cropland ecosystems with drip irrigation and predicting the subsequent biophysical and biogeochemical feedbacks to climate change." @default.
• W4313201679 created "2023-01-06" @default.
• W4313201679 creator A5000563191 @default.
• W4313201679 creator A5012731014 @default.
• W4313201679 creator A5030654945 @default.
• W4313201679 creator A5061634792 @default.
• W4313201679 creator A5062755510 @default.
• W4313201679 creator A5063626100 @default.
• W4313201679 creator A5064404279 @default.
• W4313201679 creator A5086881242 @default.
• W4313201679 creator A5090995807 @default.
• W4313201679 creator A5091803480 @default.
• W4313201679 date "2023-02-01" @default.
• W4313201679 modified "2023-10-17" @default.
• W4313201679 title "Drip irrigation improves spring wheat water productivity by reducing leaf area while increasing yield" @default.
• W4313201679 cites W1056311717 @default.
• W4313201679 cites W1949415179 @default.
• W4313201679 cites W1964691381 @default.
• W4313201679 cites W1972483318 @default.
• W4313201679 cites W1973674964 @default.
• W4313201679 cites W1986927491 @default.
• W4313201679 cites W1995434839 @default.
• W4313201679 cites W2002393802 @default.
• W4313201679 cites W2002424674 @default.
• W4313201679 cites W2006553143 @default.
• W4313201679 cites W2007631782 @default.
• W4313201679 cites W2016916834 @default.
• W4313201679 cites W2030043359 @default.
• W4313201679 cites W2030571178 @default.
• W4313201679 cites W2050699592 @default.
• W4313201679 cites W2072243487 @default.
• W4313201679 cites W2078783038 @default.
• W4313201679 cites W2080926925 @default.
• W4313201679 cites W2082586262 @default.
• W4313201679 cites W2085517953 @default.
• W4313201679 cites W2101723121 @default.
• W4313201679 cites W2108135471 @default.
• W4313201679 cites W2110640479 @default.
• W4313201679 cites W2113200851 @default.
• W4313201679 cites W2116033926 @default.
• W4313201679 cites W2139750287 @default.
• W4313201679 cites W2144898950 @default.
• W4313201679 cites W2151920842 @default.
• W4313201679 cites W2221653364 @default.
• W4313201679 cites W2403799132 @default.
• W4313201679 cites W2477863905 @default.
• W4313201679 cites W2532407294 @default.
• W4313201679 cites W2551658670 @default.
• W4313201679 cites W2563611423 @default.
• W4313201679 cites W2604291725 @default.
• W4313201679 cites W2605879192 @default.
• W4313201679 cites W2745425512 @default.
• W4313201679 cites W2754702386 @default.
• W4313201679 cites W2885899747 @default.
• W4313201679 cites W2898304219 @default.
• W4313201679 cites W2908442682 @default.
• W4313201679 cites W2955933859 @default.
• W4313201679 cites W2974831499 @default.
• W4313201679 cites W2986224681 @default.
• W4313201679 cites W3007849895 @default.
• W4313201679 cites W3029767680 @default.
• W4313201679 cites W3037230357 @default.
• W4313201679 cites W3094545424 @default.
• W4313201679 cites W3109896739 @default.
• W4313201679 cites W3119819499 @default.
• W4313201679 cites W3131794150 @default.
• W4313201679 cites W3133662003 @default.
• W4313201679 cites W3141952366 @default.
• W4313201679 cites W3152130690 @default.
• W4313201679 cites W3157104249 @default.
• W4313201679 cites W3167763128 @default.
• W4313201679 cites W3200397540 @default.
• W4313201679 doi "https://doi.org/10.1016/j.eja.2022.126710" @default.
• W4313201679 hasPublicationYear "2023" @default.
• W4313201679 type Work @default.
• W4313201679 citedByCount "4" @default.
• W4313201679 countsByYear W43132016792023 @default.
• W4313201679 crossrefType "journal-article" @default.
• W4313201679 hasAuthorship W4313201679A5000563191 @default.
• W4313201679 hasAuthorship W4313201679A5012731014 @default.
• W4313201679 hasAuthorship W4313201679A5030654945 @default.
• W4313201679 hasAuthorship W4313201679A5061634792 @default.
• W4313201679 hasAuthorship W4313201679A5062755510 @default.
• W4313201679 hasAuthorship W4313201679A5063626100 @default.
• W4313201679 hasAuthorship W4313201679A5064404279 @default.
• W4313201679 hasAuthorship W4313201679A5086881242 @default.
• W4313201679 hasAuthorship W4313201679A5090995807 @default.
• W4313201679 hasAuthorship W4313201679A5091803480 @default.
• W4313201679 hasConcept C101000010 @default.
• W4313201679 hasConcept C112077630 @default.
• W4313201679 hasConcept C152453397 @default.
• W4313201679 hasConcept C176783924 @default.
• W4313201679 hasConcept C18903297 @default.
• W4313201679 hasConcept C195092306 @default.
• W4313201679 hasConcept C2776325102 @default.
• W4313201679 hasConcept C2780560099 @default.
• W4313201679 hasConcept C39432304 @default.
• W4313201679 hasConcept C6557445 @default.

• next