FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3009887796> ?p ?o ?g. }

• W3009887796 endingPage "117995" @default.
• W3009887796 startingPage "117995" @default.
• W3009887796 abstract "Populus species have been extensively cultivated in different regions around the world due to their growth performance, easy vegetative propagation and wood properties (for lumber, pulp, fiberboard and plywood). Stability analysis is important for forest breeding programs aimed at obtaining high yield genotypes with greater adaptability for a wide range of environments. However, its application in woody species is scarce in comparison to the usual approach for annual crops. Our objective was to study the productivity and stability of poplar clones across different environmental conditions, and to compare two different methods to characterize yield stability. We used data obtained from trials across sites with different environmental conditions in Paraná River Delta, South America. The studied clones were the most used in the region, Populus deltoides W. Bartram ex Marshall ‘Australiano 129/60’, ‘Carabelas INTA’, ‘Stoneville 67’ and Popupus x canadensis Moench ‘Ragonese 22 INTA. We analyze their growth response in long-term trials under field conditions in a context of high environmental heterogeneity such as the leveed systems of the studied region. Yield stability (volume/ha) of poplar clones was evaluated at eight years old from parameters of Joint Linear Regression Analysis (regression coefficient bi and squared deviations from the mean δij), and with a simplified Relative Distance Plasticity Index (RDPIs) assuming that lower RDPIs implies greater genotype yield stability. This comparison highlighted the usefulness of RDPIs to estimate yield stability regardless of the set and number of involved genotypes. The amplitude of yield between sites demonstrated a great environmental heterogeneity and the significance of genotype x environment interactions. These genotypes were selected clones but had great differences in stability and yield. Thus they were classified as stable genotypes of high yield (‘Australiano 129/60’) and low yield (‘Stoneville 67’) and unstable genotypes of high yield (‘Carabelas INTA’) and low yield (‘Ragonese 22 INTA’). The description of ‘Australiano 129/60’ as stable genotype of high yield is consistent with the empirical perception of forest farmers and explains the prevalence of this clone in the poplar plantations at the Paraná River Delta. However, ‘Carabelas INTA’ an unstable genotype was the best alternative for the most productive conditions. Thus, evaluating yield stability was relevant for both strategies, the selection of high yield stable genotypes and to identify the best genotype for a specific environment. Moreover, the combination of them according to site conditions and resource availability could improve the yield at a stand or regional level. Yield stability analysis should be considered as selection criteria of new clones in Populus breeding programs considering the range of site conditions and the potential impact of climate change on forest plantations." @default.
• W3009887796 created "2020-03-13" @default.
• W3009887796 creator A5041104387 @default.
• W3009887796 creator A5057325814 @default.
• W3009887796 creator A5058549747 @default.
• W3009887796 date "2020-05-01" @default.
• W3009887796 modified "2023-09-27" @default.
• W3009887796 title "Yield stability and phenotypic plasticity of Populus spp. clones growing in environmental gradients: I-yield stability under field conditions" @default.
• W3009887796 cites W1015400671 @default.
• W3009887796 cites W1489225408 @default.
• W3009887796 cites W1630791727 @default.
• W3009887796 cites W1914585819 @default.
• W3009887796 cites W1965672453 @default.
• W3009887796 cites W1985185895 @default.
• W3009887796 cites W1986037157 @default.
• W3009887796 cites W1988109703 @default.
• W3009887796 cites W1999106449 @default.
• W3009887796 cites W2006430934 @default.
• W3009887796 cites W2021355891 @default.
• W3009887796 cites W2036778344 @default.
• W3009887796 cites W2041724532 @default.
• W3009887796 cites W2044769149 @default.
• W3009887796 cites W2049756266 @default.
• W3009887796 cites W2069764740 @default.
• W3009887796 cites W2070047937 @default.
• W3009887796 cites W2070532024 @default.
• W3009887796 cites W2077959734 @default.
• W3009887796 cites W2085367839 @default.
• W3009887796 cites W2093894719 @default.
• W3009887796 cites W2094984124 @default.
• W3009887796 cites W2096984801 @default.
• W3009887796 cites W2105642394 @default.
• W3009887796 cites W2119802169 @default.
• W3009887796 cites W2123017873 @default.
• W3009887796 cites W2124884391 @default.
• W3009887796 cites W2127221038 @default.
• W3009887796 cites W2134835006 @default.
• W3009887796 cites W2134978647 @default.
• W3009887796 cites W2144257420 @default.
• W3009887796 cites W2149883657 @default.
• W3009887796 cites W2152536753 @default.
• W3009887796 cites W2153960926 @default.
• W3009887796 cites W2174345204 @default.
• W3009887796 cites W2187847375 @default.
• W3009887796 cites W2766411552 @default.
• W3009887796 cites W2891169873 @default.
• W3009887796 cites W2899422914 @default.
• W3009887796 cites W2944287358 @default.
• W3009887796 cites W2756085071 @default.
• W3009887796 doi "https://doi.org/10.1016/j.foreco.2020.117995" @default.
• W3009887796 hasPublicationYear "2020" @default.
• W3009887796 type Work @default.
• W3009887796 sameAs 3009887796 @default.
• W3009887796 citedByCount "1" @default.
• W3009887796 countsByYear W30098877962021 @default.
• W3009887796 crossrefType "journal-article" @default.
• W3009887796 hasAuthorship W3009887796A5041104387 @default.
• W3009887796 hasAuthorship W3009887796A5057325814 @default.
• W3009887796 hasAuthorship W3009887796A5058549747 @default.
• W3009887796 hasConcept C104317684 @default.
• W3009887796 hasConcept C105795698 @default.
• W3009887796 hasConcept C130947863 @default.
• W3009887796 hasConcept C134121241 @default.
• W3009887796 hasConcept C135763542 @default.
• W3009887796 hasConcept C151730666 @default.
• W3009887796 hasConcept C177606310 @default.
• W3009887796 hasConcept C18903297 @default.
• W3009887796 hasConcept C191897082 @default.
• W3009887796 hasConcept C192562407 @default.
• W3009887796 hasConcept C2779343474 @default.
• W3009887796 hasConcept C33923547 @default.
• W3009887796 hasConcept C48921125 @default.
• W3009887796 hasConcept C55493867 @default.
• W3009887796 hasConcept C59822182 @default.
• W3009887796 hasConcept C6557445 @default.
• W3009887796 hasConcept C86803240 @default.
• W3009887796 hasConceptScore W3009887796C104317684 @default.
• W3009887796 hasConceptScore W3009887796C105795698 @default.
• W3009887796 hasConceptScore W3009887796C130947863 @default.
• W3009887796 hasConceptScore W3009887796C134121241 @default.
• W3009887796 hasConceptScore W3009887796C135763542 @default.
• W3009887796 hasConceptScore W3009887796C151730666 @default.
• W3009887796 hasConceptScore W3009887796C177606310 @default.
• W3009887796 hasConceptScore W3009887796C18903297 @default.
• W3009887796 hasConceptScore W3009887796C191897082 @default.
• W3009887796 hasConceptScore W3009887796C192562407 @default.
• W3009887796 hasConceptScore W3009887796C2779343474 @default.
• W3009887796 hasConceptScore W3009887796C33923547 @default.
• W3009887796 hasConceptScore W3009887796C48921125 @default.
• W3009887796 hasConceptScore W3009887796C55493867 @default.
• W3009887796 hasConceptScore W3009887796C59822182 @default.
• W3009887796 hasConceptScore W3009887796C6557445 @default.
• W3009887796 hasConceptScore W3009887796C86803240 @default.
• W3009887796 hasFunder F4320326565 @default.
• W3009887796 hasLocation W30098877961 @default.
• W3009887796 hasLocation W30098877962 @default.
• W3009887796 hasOpenAccess W3009887796 @default.
• W3009887796 hasPrimaryLocation W30098877961 @default.

• next