2018
DOI: 10.1007/s11032-018-0893-z
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SSR-based genetic linkage map construction in pistachio using an interspecific F1 population and QTL analysis for leaf and shoot traits

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Cited by 5 publications
(5 citation statements)
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“…In addition, we obtained some small linkage groups, the same as in Juglans regia [31]. These phenomena have been found in many species [16,18,31,33,40,41] and indicate that some gaps prevent connection between linkage groups belonging to the same chromosome, which needs to be optimised in the future by expanding mapping population, increasing parental combinations and adopting new markers. By contrast with the variety of mapping populations in crops [42,43], the growth cycle of trees was long, and the genetic offspring was difficult to be obtained.…”
Section: Genetic Linkage Mapmentioning
confidence: 52%
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“…In addition, we obtained some small linkage groups, the same as in Juglans regia [31]. These phenomena have been found in many species [16,18,31,33,40,41] and indicate that some gaps prevent connection between linkage groups belonging to the same chromosome, which needs to be optimised in the future by expanding mapping population, increasing parental combinations and adopting new markers. By contrast with the variety of mapping populations in crops [42,43], the growth cycle of trees was long, and the genetic offspring was difficult to be obtained.…”
Section: Genetic Linkage Mapmentioning
confidence: 52%
“…The QTLs identified for each trait were distributed in different linkage groups, suggesting that the trait may be regulated by multiple genes with large effect. Three traits (tree height, ground diameter and crown diameter) had a complex genetic background, which was also confirmed for Pistacia vera (pistachio) [40], J. regia [31], P. tremula (European aspen) [44], H. brasiliensis [16] and Camellia sinensis (tea tree) [45]. The phenotypic variation explained by each QTL had a wide range, and the sum of the phenotypic variation for one trait was more than 100%.…”
Section: Qtl Analysismentioning
confidence: 53%
“…Forty-five in silico novel SSR markers developed by Khodaeiaminjan et al [35] were used to construct in silico polymorphic SSR-based genetic linkage maps in pistachio and five SSR markers developed by Motalebipour et al [36] in pistachio were used for testing the amplification and polymorphism in eight terebinth genotypes. The 38 of 45 in silico polymorphic novel SSR markers have been used for the first time in the characterization study of Pistacia wild species.…”
Section: In Silico Polymorphic Ssr-pcr Reactionsmentioning
confidence: 99%
“…A total of 385 SSR markers was mapped along with 15 chromosomes, and the consensus map had 1511.3 cM length with an average of 25.6 SSR markers per LG, and the average distance between the markers was 3.9 cM with a 0.25 marker density. The first QTL study in pistachio was performed by Motalebipour et al [35] who constructed a genetic linkage map of pistachio using an inter-specific F1 population and SSR markers. The authors mapped a total of 388 SSR markers along with 15 linkage groups.…”
Section: Use Of Ssr Markers In the Genus Pistaciamentioning
confidence: 99%
“…Recently, Khodaeiaminjan et al [28] constructed the first complete SSR-based linkage map of pistachio using an intraspecific F1 population. More recently, Motalebipour et al [35] constructed a genetic linkage map and performed the first QTL analysis in pistachio by using an interspecific F1 population.…”
Section: Introductionmentioning
confidence: 99%