tailieunhanh - Genetic variability of bilaterally symmetrical fruits of Norway maple in function of species biodiversity conservation

In this paper it is shown that the differences found between fruits are the result of genetic variations mosaic; that is, they are different ecotypes of Norway maple, since bilaterally symmetrical fruits do not have significantly different left and right sides, which shows the developmental stability of Norway maple. | Turkish Journal of Agriculture and Forestry Turk J Agric For (2015) 39: 387-393 © TÜBİTAK doi: Research Article Genetic variability of bilaterally symmetrical fruits of Norway maple in function of species biodiversity conservation 1, 2 2 2 Isidora SIMOVIĆ *, Mirjana OCOKOLJIĆ , Dragica OBRATOV-PETKOVIĆ , Dragica VILOTIĆ 1 Ministry of Education and Science, Republic of Serbia, Belgrade, Serbia 2 Faculty of Forestry, University of Belgrade, Belgrade, Serbia Received: Accepted: Published Online: Printed: Abstract: Parkway trees in urban environments have a pivotal ecological role, primarily because they modify microclimatological parameters. Norway maple is a suitable species for these purposes since it is very adaptable to city conditions. This characteristic of Norway maple allows urban trees to be used as a basis for biodiversity conservation. Bilaterally symmetrical fruits of Norway maple are particularly convenient for the exploration of developmental stability and the role of genetic and environment in variability of morphological characteristics of Norway maple. Variability change through different conditions could be used for creation of a scale that could serve to predict morphology of Norway maple in different environments. The differences between fruits collected from 4 locations show great variability of the species, but the size and appearance of the fruits are in accordance with literature data and do not deviate in any group of samples. Despite similar normal distributions of groups, the fruits differ significantly, although these variations are not consequences of a cause-and-effect connection between environment and appearance of fruits. Variability of samples taken from the urban environment does not differ from variability of samples taken from natural habitats. The large variability of Norway maple is expected since it has a wide

• Nông nghiệp
• Genetic variability
• Bilaterally symmetrical fruits
• Acer platanoides L
• Morphogenetic control
• Norway maple
• Genetic advance
• Genetic variability analysis in Ashwagandha
• Genetic variability analysis
• Characters indicating sufficient genetic variability
• Genetic variability in chickpea
• Assessment of genetic variability
• Cicer arietinum L
• Genetic advance etc
• Greater yam
• Genetic variability in 30 genotypes
• Study of genetic variability
• Heritability and genetic advance
• Sesame (Sesamum indicum L
• Genetic advance and wheat
• Genetic advance for grain yield
• Contributing traits in wheat
• Chrysanthemum (Dendranthema grandiflora Tzvelve)
• Genetic advance in chrysanthemum
• Genetic advance in cowpea
• Improvement programme
• Studies on genetic variability
• Genetic advance in pumpkin
• Studied traits between genotypes
• Fenugreek (Trigonella foenum graecum L )
• Genetic advance in fenugreek
• Germplasm genetic variability
• Phenotypic coefficient variability
• Genotypic coefficient of variability
• Genetic advance for yield
• PCV and variability
• Drought tolerant rice
• Rice (Oryza sativa L
• ) landraces
• Mutant breeding lines
• Genetic gain
• Advanced mutant breeding lines
• Sesame (Sesamum indicum L )
• Akra [Abelmoschus esculentus (L ) Moench]
• Genetic advance in genotypes
• Majority of the growth
• Rice (Oryza sativa L )
• Normal soil conditions
• Rice genotypes for genetic variability
• Rice genotypes
• Yield components in rice genotypes
• Genetic variability in rice genotypes
• Genetic diversity
• Evaluation of genetic variability
• Genetic variability in tomato
• Tomato (Solanum lycopersicum L
• Mill)
• Genotypes using microsatellite markers
• Microsatellite markers
• Genetic conservation
• Phylogenetic relationship
• Little millets Panicum sumatrense
• Genetic variability among
• Genotypes of blackgram
• Blackgram [Vigna mungo (L
• ) Hepper]
• Genetic advance and kharif
• Amaranth (Amaranthus L ) species
• Growth parameters in amaranth
• Genetic variability for yield
• Yield attributing traits
• Physiological and quality traits
• Black gram [Vigna mungo (L
• Genetic variability parameter
• Genotype followed
• Genetic variability for quantitative
• Qualitative characters
• Local germplasm
• Genetic variability studies
• Pooled ANOVA
• Rapeseed (Brassica Rapa L
• Tomato (Solanum lycopersicum L )
• Polyhouse condition
• Amaranthus (Amaranthus spp )
• Chhattisgarh plain condition
• Studies on collection
• Evaluation of genetic variability available