BMC GENOMICS, ISSN 1471-2164, 04/2019, Volume 20, Issue 1, pp. 302 - 16
BackgroundGenomic selection accuracy increases with the use of high SNP (single nucleotide polymorphism) coverage. However, such gains in coverage come at high...
Populus nigra | Genotype Imputation | Low density arrays | ACCURACY | STRATEGIES | PREDICTION | LINKAGE DISEQUILIBRIUM | Whole-Genome Resequencing | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | GENETICS & HEREDITY | WHOLE-GENOME ASSOCIATION | WIDE ASSOCIATION | SELECTION | EFFICIENCY | MISSING GENOTYPES | Usage | Nucleotide sequencing | Single nucleotide polymorphisms | Hardy-Weinberg formula | Analysis | DNA sequencing | Linkage disequilibrium | Genomes | Single-nucleotide polymorphism | Gene polymorphism | Marker panels | Density | Genotype & phenotype | Accuracy | Density ratio | Annotations | Mathematical analysis | Quality | Poplar | Population | Trees | Densification | Nucleotide sequence | Redundancy | Breeding | Coverage | Statistical tests | Studies | Algorithms | Gene frequency | Pedigree | Alleles | Software | Polymorphism
Populus nigra | Genotype Imputation | Low density arrays | ACCURACY | STRATEGIES | PREDICTION | LINKAGE DISEQUILIBRIUM | Whole-Genome Resequencing | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | GENETICS & HEREDITY | WHOLE-GENOME ASSOCIATION | WIDE ASSOCIATION | SELECTION | EFFICIENCY | MISSING GENOTYPES | Usage | Nucleotide sequencing | Single nucleotide polymorphisms | Hardy-Weinberg formula | Analysis | DNA sequencing | Linkage disequilibrium | Genomes | Single-nucleotide polymorphism | Gene polymorphism | Marker panels | Density | Genotype & phenotype | Accuracy | Density ratio | Annotations | Mathematical analysis | Quality | Poplar | Population | Trees | Densification | Nucleotide sequence | Redundancy | Breeding | Coverage | Statistical tests | Studies | Algorithms | Gene frequency | Pedigree | Alleles | Software | Polymorphism
Journal Article
PloS one, 2016, Volume 11, Issue 1, p. e0147209
Complete Populus genome sequences are available for the nucleus (P. trichocarpa; section Tacamahaca) and for chloroplasts (seven species), but not for...
Mitochondria - genetics | Plant Breeding | Populus - genetics | Genome, Plant | Phylogeny | Chloroplasts - genetics | Populus - classification
Mitochondria - genetics | Plant Breeding | Populus - genetics | Genome, Plant | Phylogeny | Chloroplasts - genetics | Populus - classification
Journal Article
Science, ISSN 0036-8075, 08/2014, Volume 345, Issue 6199, pp. 950 - 953
Oilseed rape (Brassica napus L.) was formed similar to 7500 years ago by hybridization between B. rapa and B. oleracea, followed by chromosome doubling, a...
PLANT | DOMINANCE | GENE | MULTIDISCIPLINARY SCIENCES | COTTON | Rape (Plant) | Genetic research | Botanical research | Polyploidy | Genetic aspects | Research | Hybridization | Evolutionary biology | Genomics | Rape plants | Rape | Brassica | Genes | Crops | Genetics | Evolution | Genomes | Oilseeds | Life Sciences
PLANT | DOMINANCE | GENE | MULTIDISCIPLINARY SCIENCES | COTTON | Rape (Plant) | Genetic research | Botanical research | Polyploidy | Genetic aspects | Research | Hybridization | Evolutionary biology | Genomics | Rape plants | Rape | Brassica | Genes | Crops | Genetics | Evolution | Genomes | Oilseeds | Life Sciences
Journal Article
BMC Research Notes, ISSN 1756-0500, 02/2016, Volume 9, Issue 1, p. 81
The continuing increase in size and quality of the "short reads" raw data is a significant help for the quality of the assembly obtained through various...
Gene-space | Limited computing resources | Next-generation sequencing NGS | Unigene | Assembly | Iterative process | Repetitive Sequences, Nucleic Acid - genetics | Computational Biology - methods | Diploidy | Reproducibility of Results | Algorithms | Base Sequence | Genomics | Polymorphism, Single Nucleotide - genetics | Genome, Plant | Genotyping Techniques | High-Throughput Nucleotide Sequencing - methods | Peas - genetics | RNA sequencing | Genomes | Research | Single nucleotide polymorphisms | Plant genetics
Gene-space | Limited computing resources | Next-generation sequencing NGS | Unigene | Assembly | Iterative process | Repetitive Sequences, Nucleic Acid - genetics | Computational Biology - methods | Diploidy | Reproducibility of Results | Algorithms | Base Sequence | Genomics | Polymorphism, Single Nucleotide - genetics | Genome, Plant | Genotyping Techniques | High-Throughput Nucleotide Sequencing - methods | Peas - genetics | RNA sequencing | Genomes | Research | Single nucleotide polymorphisms | Plant genetics
Journal Article
Plant Physiology, ISSN 0032-0889, 8/2011, Volume 156, Issue 4, pp. 2244 - 2254
In tomato (Solarium lycopersicum) fruit, the number of locules (cavities containing seeds that are derived from carpels) varies from two to up to 10 or more....
Quantitative trait loci | Phenotypes | Alleles | Plant domestication | Genetic loci | Evolution | Genomes | Plants | Chromosomes | GENETICS, GENOMICS, AND MOLECULAR EVOLUTION | Fruits | LINKAGE DISEQUILIBRIUM | STEM-CELL FATE | SHAPED TOMATO | QUANTITATIVE TRAIT | GENES | SHOOT APICAL MERISTEM | CULTIVATED TOMATOES | DOMESTICATION | ARABIDOPSIS | EXTREME FRUIT SIZE | PLANT SCIENCES | Reproducibility of Results | Genetic Association Studies | Physical Chromosome Mapping | Seeds - genetics | Molecular Sequence Data | Organ Size | Lycopersicon esculentum - anatomy & histology | Plant Proteins - genetics | Phenotype | Genes, Plant - genetics | Base Sequence | Gene Expression Regulation, Plant | Flowers - anatomy & histology | Polymorphism, Single Nucleotide - genetics | Lycopersicon esculentum - genetics | Agriculture | Models, Genetic | Flowers - genetics | Evolution, Molecular | Genetic aspects | Research | Tomatoes | Plant genetics
Quantitative trait loci | Phenotypes | Alleles | Plant domestication | Genetic loci | Evolution | Genomes | Plants | Chromosomes | GENETICS, GENOMICS, AND MOLECULAR EVOLUTION | Fruits | LINKAGE DISEQUILIBRIUM | STEM-CELL FATE | SHAPED TOMATO | QUANTITATIVE TRAIT | GENES | SHOOT APICAL MERISTEM | CULTIVATED TOMATOES | DOMESTICATION | ARABIDOPSIS | EXTREME FRUIT SIZE | PLANT SCIENCES | Reproducibility of Results | Genetic Association Studies | Physical Chromosome Mapping | Seeds - genetics | Molecular Sequence Data | Organ Size | Lycopersicon esculentum - anatomy & histology | Plant Proteins - genetics | Phenotype | Genes, Plant - genetics | Base Sequence | Gene Expression Regulation, Plant | Flowers - anatomy & histology | Polymorphism, Single Nucleotide - genetics | Lycopersicon esculentum - genetics | Agriculture | Models, Genetic | Flowers - genetics | Evolution, Molecular | Genetic aspects | Research | Tomatoes | Plant genetics
Journal Article
PLoS ONE, ISSN 1932-6203, 12/2011, Volume 6, Issue 12, p. e28334
SNP genotyping arrays have been useful for many applications that require a large number of molecular markers such as high-density genetic mapping, genome-wide...
DESIGN | LINKAGE DISEQUILIBRIUM | ASSAY | INBRED LINES | BIOLOGY | MARKERS | POPULATIONS | PATTERNS | DIVERSITY | ASSOCIATION | MAP | Zea mays - genetics | Conserved Sequence - genetics | Reproducibility of Results | Genome, Plant - genetics | Genotype | Genetic Markers | Chromosomes, Plant | Polymorphism, Genetic | Base Sequence | Chromosome Mapping - methods | Polymorphism, Single Nucleotide - genetics | Recombination, Genetic - genetics | Software | Genotyping Techniques - methods | Cluster Analysis | Quality Control | Corn | Genomes | Genes | Analysis | Genomics | Haplotypes | Mapping | Maize | Single-nucleotide polymorphism | Density | Germplasm | Conserved sequence | Maps | Genetics | Inbreeding | Chromosomes | Bioinformatics | Assembly | Recombinant | Linkage analysis | Breeding | Markers | Domestication | Genotyping | Gene loci | Gene mapping | Arrays
DESIGN | LINKAGE DISEQUILIBRIUM | ASSAY | INBRED LINES | BIOLOGY | MARKERS | POPULATIONS | PATTERNS | DIVERSITY | ASSOCIATION | MAP | Zea mays - genetics | Conserved Sequence - genetics | Reproducibility of Results | Genome, Plant - genetics | Genotype | Genetic Markers | Chromosomes, Plant | Polymorphism, Genetic | Base Sequence | Chromosome Mapping - methods | Polymorphism, Single Nucleotide - genetics | Recombination, Genetic - genetics | Software | Genotyping Techniques - methods | Cluster Analysis | Quality Control | Corn | Genomes | Genes | Analysis | Genomics | Haplotypes | Mapping | Maize | Single-nucleotide polymorphism | Density | Germplasm | Conserved sequence | Maps | Genetics | Inbreeding | Chromosomes | Bioinformatics | Assembly | Recombinant | Linkage analysis | Breeding | Markers | Domestication | Genotyping | Gene loci | Gene mapping | Arrays
Journal Article
Nature, ISSN 0028-0836, 06/2017, Volume 546, Issue 7656, pp. 148 - 152
The domesticated sunflower, Helianthus annuus L., is a global oil crop that has promise for climate change adaptation, because it can maintain stable yields...
PHOSPHATIDATE PHOSPHATASE | WILD | ACID | CULTIVATED SUNFLOWER | ANNOTATION | MULTIDISCIPLINARY SCIENCES | SEQUENCE | GENES | HELIANTHUS-ANNUUS | DOMESTICATION | ASTERACEAE | Genome, Plant - genetics | Stress, Physiological - genetics | Genomics | Helianthus - metabolism | Transcriptome - genetics | Sequence Analysis, DNA | Genetic Variation | Sunflower Oil | Gene Expression Regulation, Plant | Plant Oils - metabolism | Gene Duplication - genetics | Flowers - physiology | Acclimatization - genetics | Helianthus - classification | Flowers - genetics | Evolution, Molecular | Helianthus - genetics | Genetic aspects | Gene expression | Observations | Sunflowers | Networks | Climate | Oil and gas exploration | Transcription | Research programs | Genes | Genomes | Gene sequencing | Mining | Botany | Evolution | Genetics | Flowering | Flowers & plants | Assembly | Adaptation | Duplicating milling machines | Reconstruction | Stresses | Architecture | Breeding | Crops | Organs | Genetic diversity | Metabolism | Real time | Stress | Environmental conditions | Resilience | Quantitative genetics | Climate change | Oil | Plant breeding | Oils & fats | Compatibility | Life Sciences | Vegetal Biology
PHOSPHATIDATE PHOSPHATASE | WILD | ACID | CULTIVATED SUNFLOWER | ANNOTATION | MULTIDISCIPLINARY SCIENCES | SEQUENCE | GENES | HELIANTHUS-ANNUUS | DOMESTICATION | ASTERACEAE | Genome, Plant - genetics | Stress, Physiological - genetics | Genomics | Helianthus - metabolism | Transcriptome - genetics | Sequence Analysis, DNA | Genetic Variation | Sunflower Oil | Gene Expression Regulation, Plant | Plant Oils - metabolism | Gene Duplication - genetics | Flowers - physiology | Acclimatization - genetics | Helianthus - classification | Flowers - genetics | Evolution, Molecular | Helianthus - genetics | Genetic aspects | Gene expression | Observations | Sunflowers | Networks | Climate | Oil and gas exploration | Transcription | Research programs | Genes | Genomes | Gene sequencing | Mining | Botany | Evolution | Genetics | Flowering | Flowers & plants | Assembly | Adaptation | Duplicating milling machines | Reconstruction | Stresses | Architecture | Breeding | Crops | Organs | Genetic diversity | Metabolism | Real time | Stress | Environmental conditions | Resilience | Quantitative genetics | Climate change | Oil | Plant breeding | Oils & fats | Compatibility | Life Sciences | Vegetal Biology
Journal Article
The Plant Cell, ISSN 1040-4651, 6/2010, Volume 22, Issue 6, pp. 1686 - 1701
To improve our understanding of the organization and evolution of the wheat (Triticum aestivum) genome, we sequenced and annotated 13-Mb contigs (18.2 Mb)...
Retrotransposons | Genetic transposition | Genes | Genomics | Corn | Evolution | Genomes | Chromosomes | Sequencing | Rice | MOLECULAR CHARACTERIZATION | RECOMBINATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | RETROTRANSPOSONS | CHROMOSOMES | IDENTIFICATION | PLANT SCIENCES | CELL BIOLOGY | TRITICEAE | GENOME EXPANSION | DNA | MAIZE | RICE | Gene Duplication | Multigene Family | Genes, Plant | Molecular Sequence Data | Genome, Plant | Chromosomes, Plant | Sequence Analysis, DNA | DNA Transposable Elements | Triticum - genetics | Chromosomes, Artificial, Bacterial | Contig Mapping | DNA, Plant - genetics | Evolution, Molecular | Telomere - genetics | Genetic aspects | Transposons | Research | Wheat | Life Sciences | Plants genetics | Genetics
Retrotransposons | Genetic transposition | Genes | Genomics | Corn | Evolution | Genomes | Chromosomes | Sequencing | Rice | MOLECULAR CHARACTERIZATION | RECOMBINATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | RETROTRANSPOSONS | CHROMOSOMES | IDENTIFICATION | PLANT SCIENCES | CELL BIOLOGY | TRITICEAE | GENOME EXPANSION | DNA | MAIZE | RICE | Gene Duplication | Multigene Family | Genes, Plant | Molecular Sequence Data | Genome, Plant | Chromosomes, Plant | Sequence Analysis, DNA | DNA Transposable Elements | Triticum - genetics | Chromosomes, Artificial, Bacterial | Contig Mapping | DNA, Plant - genetics | Evolution, Molecular | Telomere - genetics | Genetic aspects | Transposons | Research | Wheat | Life Sciences | Plants genetics | Genetics
Journal Article
Molecular Biology and Evolution, ISSN 0737-4038, 10/2016, Volume 33, Issue 10, pp. 2706 - 2719
Many recent studies have emphasized the important role of structural variation (SV) in determining human genetic and phenotypic variation. In plants, studies...
pan-genome | structural variation | poplar | transposable elements | ARABIDOPSIS-THALIANA | PLANT GENOMES | GENE DUPLICATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | EVOLUTIONARY BIOLOGY | RESISTANCE GENES | EVOLUTION | COPY-NUMBER | GENETICS & HEREDITY | MISSING HERITABILITY | POPULUS-TRICHOCARPA | MAIZE | Genome-Wide Association Study | Genes, Plant | Genomics | Populus - genetics | Structure-Activity Relationship | Genome, Plant | INDEL Mutation | DNA Copy Number Variations | Discoveries
pan-genome | structural variation | poplar | transposable elements | ARABIDOPSIS-THALIANA | PLANT GENOMES | GENE DUPLICATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | EVOLUTIONARY BIOLOGY | RESISTANCE GENES | EVOLUTION | COPY-NUMBER | GENETICS & HEREDITY | MISSING HERITABILITY | POPULUS-TRICHOCARPA | MAIZE | Genome-Wide Association Study | Genes, Plant | Genomics | Populus - genetics | Structure-Activity Relationship | Genome, Plant | INDEL Mutation | DNA Copy Number Variations | Discoveries
Journal Article
Theoretical and Applied Genetics, ISSN 0040-5752, 3/2013, Volume 126, Issue 3, pp. 567 - 581
Association mapping has been proposed as an efficient approach to assist in the identification of the molecular basis of agronomical traits in plants. For this...
Life Sciences | Biochemistry, general | Biotechnology | Plant Biochemistry | Plant Breeding/Biotechnology | Agriculture | Plant Genetics & Genomics | QTL ANALYSIS | AGRONOMY | CANDIDATE GENES | SOLANUM-LYCOPERSICON | LINE POPULATION | LOCUS | PLANT SCIENCES | HORTICULTURE | GENETICS & HEREDITY | COMPLEX TRAITS | SINGLE-NUCLEOTIDE POLYMORPHISMS | LINKAGE DISEQUILIBRIUM ANALYSIS | GENOME-WIDE ASSOCIATION | FRESH-MARKET TOMATO | Phenotype | Genotype | Lycopersicon esculentum - genetics | Chromosome Mapping | Polymorphism, Single Nucleotide | Genome, Plant | Quantitative Trait Loci | DNA, Plant - genetics | Fruit - genetics | Linkage Disequilibrium | Quantitative genetics | Physiological aspects | Genetic aspects | Research | Tomatoes | Biological diversity
Life Sciences | Biochemistry, general | Biotechnology | Plant Biochemistry | Plant Breeding/Biotechnology | Agriculture | Plant Genetics & Genomics | QTL ANALYSIS | AGRONOMY | CANDIDATE GENES | SOLANUM-LYCOPERSICON | LINE POPULATION | LOCUS | PLANT SCIENCES | HORTICULTURE | GENETICS & HEREDITY | COMPLEX TRAITS | SINGLE-NUCLEOTIDE POLYMORPHISMS | LINKAGE DISEQUILIBRIUM ANALYSIS | GENOME-WIDE ASSOCIATION | FRESH-MARKET TOMATO | Phenotype | Genotype | Lycopersicon esculentum - genetics | Chromosome Mapping | Polymorphism, Single Nucleotide | Genome, Plant | Quantitative Trait Loci | DNA, Plant - genetics | Fruit - genetics | Linkage Disequilibrium | Quantitative genetics | Physiological aspects | Genetic aspects | Research | Tomatoes | Biological diversity
Journal Article
BMC Genomics, ISSN 1471-2164, 11/2013, Volume 14, Issue 1, pp. 791 - 791
Background: One of the goals of genomics is to identify the genetic loci responsible for variation in phenotypic traits. The completion of the tomato genome...
Sequence | Single nucleotide polymorphism | Genome | Introgression | Tomato | NUMBER | SNP DISCOVERY | LYCOPERSICON VAR. CERASIFORME | FRUIT-QUALITY | SOLANUM-LYCOPERSICON | ESCULENTUM | EXPRESSED SEQUENCE TAGS | CULTIVATED TOMATO | GENETIC DIVERSITY | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | GENETICS & HEREDITY | SINGLE-NUCLEOTIDE POLYMORPHISMS | Breeding | Molecular Sequence Annotation | Heterozygote | Lycopersicon esculentum - genetics | Chromosome Mapping | Polymorphism, Single Nucleotide | Genome, Plant | Chromosomes, Plant - genetics | Sequence Analysis, DNA | INDEL Mutation | DNA Copy Number Variations | Evolution, Molecular | Chromosome mapping | Plant breeding | Genetic aspects | Single nucleotide polymorphisms | Nucleotide sequencing | Tomatoes | Identification and classification | Methods | DNA sequencing | Analysis | Genetic research | Chromosomes | Biotechnology industry
Sequence | Single nucleotide polymorphism | Genome | Introgression | Tomato | NUMBER | SNP DISCOVERY | LYCOPERSICON VAR. CERASIFORME | FRUIT-QUALITY | SOLANUM-LYCOPERSICON | ESCULENTUM | EXPRESSED SEQUENCE TAGS | CULTIVATED TOMATO | GENETIC DIVERSITY | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | GENETICS & HEREDITY | SINGLE-NUCLEOTIDE POLYMORPHISMS | Breeding | Molecular Sequence Annotation | Heterozygote | Lycopersicon esculentum - genetics | Chromosome Mapping | Polymorphism, Single Nucleotide | Genome, Plant | Chromosomes, Plant - genetics | Sequence Analysis, DNA | INDEL Mutation | DNA Copy Number Variations | Evolution, Molecular | Chromosome mapping | Plant breeding | Genetic aspects | Single nucleotide polymorphisms | Nucleotide sequencing | Tomatoes | Identification and classification | Methods | DNA sequencing | Analysis | Genetic research | Chromosomes | Biotechnology industry
Journal Article
PLoS ONE, ISSN 1932-6203, 01/2018, Volume 13, Issue 1, p. e0186329
Because of their abundance and their amenability to high-throughput genotyping techniques, Single Nucleotide Polymorphisms(SNPs) are powerful tools for...
POLYMORPHISM MARKERS | GENETIC DIVERSITY | PLANT HEIGHT | CORE COLLECTION | ARRAY | EVOLUTION | HIGH-DENSITY | TOLERANCE | MULTIDISCIPLINARY SCIENCES | IDENTIFICATION | SELECTION | Usage | Physiological aspects | Genotype | Genetic aspects | Research | Single nucleotide polymorphisms | High-throughput screening (Biochemical assaying) | Wheat | Breeding | Genomics | Genes | Genetic resources | Genomes | Single-nucleotide polymorphism | Clustering | Consortia | Plant breeding | Genotyping | Genetics | Chromosomes
POLYMORPHISM MARKERS | GENETIC DIVERSITY | PLANT HEIGHT | CORE COLLECTION | ARRAY | EVOLUTION | HIGH-DENSITY | TOLERANCE | MULTIDISCIPLINARY SCIENCES | IDENTIFICATION | SELECTION | Usage | Physiological aspects | Genotype | Genetic aspects | Research | Single nucleotide polymorphisms | High-throughput screening (Biochemical assaying) | Wheat | Breeding | Genomics | Genes | Genetic resources | Genomes | Single-nucleotide polymorphism | Clustering | Consortia | Plant breeding | Genotyping | Genetics | Chromosomes
Journal Article