|
| 2-DE |
D.56 |
| insertion site analysis |
E.01 |
| 5S rRNA |
B.15 |
|
|
|
|
A
|
|
| Aster sedifolius |
F.18 |
| ABC1domain |
C.16 |
| abiotic stress |
C.03 |
| abiotic stress resistance |
5.01 |
| abscisic acid |
D.35 |
| ABTS |
C.19 |
| acidity |
B.14 |
| activation tagging |
S1.06 |
| adaptive genetic variation |
G.23 |
| Aegilops speltoides |
D.16 |
| Aegilops tauschii |
D.15, D.16 |
| Affymetrix GeneChip |
D.64 |
| aflatoxin |
C.42 |
| AFLP |
A.27, A.28, A.32, A.47, A.55, G.11 |
| AFLP markers |
A.46 |
| agricultural pests |
4.02 |
| Agrobacterium |
E.02 |
| Agrobacterium tumefaciens |
E.04 |
| agrobiodiversity |
A.59 |
| agroinfiltration |
F.07 |
| alcohol dehydrogenase |
D.06 |
| alien gene transfer |
1.04 |
| allelic variants |
A.05 |
| allergy |
F.17 |
| all-male hybrids |
S2.02 |
| alpha-chaconine |
B.12 |
| alpha-solanine |
B.12 |
| amplified 16S rRNAa |
C.33 |
| amylose |
B.09, B.10 |
| androgenesis |
S2.06 |
| Anemone coronaria |
S2.06 |
| aneuploid lines |
A.23 |
| ankyrin |
C.45 |
| annotation |
D.05, D.46 |
| anther culture |
S2.03, S2.05 |
| anthocyanins |
D.80 |
| antigens |
F.01 |
| antimicrobial peptide |
F.04 |
| antiviral protein |
C.47 |
| apomixis |
D.41, D.42, D.43, D.74, S1.04, 1.05, C.10, D.04 |
| apospory |
D.75 |
| Arabidopsis |
C.29, D.09, D.12, F.15 |
| Arabidopsis thaliana |
A.03, D.36 |
| arbuscular mycorrhiza |
C.49 |
| ArLV |
D.72 |
| aroma |
B.11, D.53 |
| array |
D.80 |
| array analysis |
C.23 |
| Artemisia annua L. |
A.57 |
| artemisinin |
A.57 |
| artichoke |
D.70, D.71, D.73 |
| artificial inoculation |
C.42 |
| ascorbate |
C.21 |
| Asparagus acutifolius |
S2.04 |
| Asparagus breeding |
S2.02 |
| Asparagus maritimus |
S2.04 |
| Aspergillus flavus |
C.42 |
| assisted breeding |
A.22 |
| association analysis |
G.14 |
| association mapping |
C.26, D.20, 1.02, 3.02 |
| association studies |
A.11 |
| Aster |
F.19 |
| Aster caucasicus |
F.18 |
| autoimmune diabetes |
F.11 |
| automatic annotation |
D.10 |
| autoregulation |
D.40 |
| auxin |
D.26, D.58 |
| axillary bud meristem |
C.29 |
|
|
|
|
B
|
|
| B- and C-type glutenin subunits |
A.05 |
| b-32 |
C.40 |
| Bactrocera oleae |
C.30 |
| bar |
G.24 |
| barley |
C.44, D.37, D.38, 1.03 |
| bean |
A.06 |
| beech |
D.11 |
| benzenoids |
D.55 |
| berry ripening |
1.07 |
| berry size |
A.11, G.12 |
| Betula |
A.50 |
| biodiesel |
A.58 |
| biodiversity |
D.49, G.11 |
| biofortification |
2.03 |
| bioinformatics |
C.34, D.45, D.52 |
| bioinformatics platform |
D.02, D.03 |
| biolistic transformation |
E.07 |
| bionformatic |
|
| biopharmaceutical |
F.07 |
| Blumeria graminis |
A.56 |
| Brassica juncea |
C.12 |
| bread wheat |
B.04 |
| breeding |
A.15, A.19, A.21, A.25, D.39, G.21 |
| breeding lines |
A.23 |
| Bt resistance |
E.01 |
| budset |
G.26 |
| Bulked Segregant Analysis (BSA) |
A.27 |
| bZIP transcription factor |
C.12 |
|
|
|
|
C
|
|
| cadmium |
C.10, C.13, C.14, C.16 |
| cadmium accumulation |
C.18 |
| cadmium tolerance |
C.09, C.11, C.12 |
| cambium |
3.04 |
| candidate genes |
C.09, G.07, G.14 |
| capillary electrophoresis |
A.37 |
| carbohydrates |
G.19 |
| cardoon |
A.35 |
| Castanea sativa |
G.23 |
| CBF |
1.03 |
| cDNA |
D.21 |
| cDNA libraries |
D.42 |
| cDNA-AFLP |
C.30, D.05, D.77 |
| cell cultures |
C.14, E.04 |
| cell cycle |
S1.03 |
| cell death |
C.14 |
| cell expansion |
A.03 |
| cell wall extension |
F.10 |
| cellulose |
D.69 |
| cereal |
A.22 |
| chaperones |
D.12 |
| Chicorium intybus |
A.07 |
| chlorophyll biosynthesis |
D.38 |
| chloroplast |
E.07 |
| chloroplast DNA |
A.52 |
| chloroplast genome |
G.08 |
| chloroplast markers |
A.50, D.49 |
| chloroplast microsatellites |
3.05 |
| chromosome location |
D.17 |
| chs genes |
A.38 |
| circadian clock |
5.02 |
| cis -DNA |
C.06 |
| cis-regulation |
1.02 |
| Citrus |
A.36, B.14, G.01, G.03 |
| Citrus limon |
G.02 |
| Citrus sinensis (L) Osbeck |
D.80, G.04 |
| class 1 knotted-like genes |
G.17 |
| clavata |
D.12 |
| climate change |
G.23 |
| clonal variation |
D.48 |
| CO2 response |
D.11 |
| coalescence simulations |
A.48 |
| coefficient of similarity |
A.32 |
| COI |
A.12 |
| cold stress |
D.77 |
| cold stress tolerance |
G.25 |
| cold sweetening |
D.64 |
| colinearity |
A.25 |
| Combimatrix |
D.66 |
| common bean |
A.19 |
| common wheat detection |
B.07 |
| comparative proteomics |
C.15 |
| comparative structural genomics |
A.08 |
| conservation genetics |
3.05 |
| corn |
A.06 |
| Corylus avellana |
D.81 |
| COS markers |
D.65 |
| CPMV |
F.11 |
| creeping rootedness |
A.17, A.27 |
| crimson clover |
A.10 |
| cross tolerance |
C.22 |
| cry gene |
E.03 |
| cryopreservation |
A.36 |
| Cucumber mosaic virus |
D.66 |
| Cucumis melo L. inodorus |
A.33 |
| Cupressus sempervirens |
C.03 |
| cuticular waxes |
C.02 |
| Cydia pomonella |
D.08 |
| Cynara |
A.31, D.72 |
| Cynara cardunculus L. |
A.29 |
| CytB |
A.12 |
| cytochrome b5 |
F.01 |
| cytokinesis |
D.04 |
|
|
|
|
D
|
|
| DArT |
A.08, D.19 |
| Dasypyrum villosum |
A.23, C.37 |
| database |
A.22, A.44 |
| Debaryomyces |
B.02 |
| defense gene |
C.44 |
| defense response |
D.66 |
| de-methylation |
S1.04 |
| Der p1 |
F.17 |
| diabetes mellitus |
F.08 |
| dicaffeoylquinic acid |
D.70 |
| differential gene expression |
D.80 |
| differential tissue gene expression |
G.04 |
| DIGE |
D.56 |
| di-haploid |
S2.04 |
| diploginy |
A.37 |
| disease |
A.25 |
| disease resistance |
S2.03 |
| diversity |
A.01 |
| diversity depletion |
3.05 |
| DNA |
A.53, G.05 |
| DNA duplication |
D.06 |
| DNA extraction |
B.16, B.17 |
| DNA methylation |
S1.01, S1.05 |
| DNA microsatellites |
B.07 |
| DNA mixture |
A.04 |
| DNA transposon |
D.13 |
| domestication |
A.15, A.46, A.47 |
| domestication bottleneck |
A.48 |
| doubled-haploids |
A.32, S2.03 |
| Dreb2 |
D.15 |
| DREB-related genes |
A.59 |
| drought |
C.25, D.22, D.23 |
| drought resistance |
C.23 |
| drought responsive genes |
C.23 |
| drought stress |
D.31 |
| drought tolerance |
C.27, D.15, D.20 |
| durum wheat |
A.04, A.42, B.06, C.24, C.25, C.26, C.27, C.43, D.18, D.19, D.20, D.21, D.22, D.23, D.24 |
| durum wheat semolina |
B.07 |
|
|
|
|
E
|
|
| ecophysiology |
D.11 |
| elicitors |
D.53 |
| embryogenesis |
D.29 |
| embryos |
C.44 |
| emp4 |
D.28 |
| endophytic bacteria |
C.33 |
| endoplasmic reticulum |
D.12 |
| endosperm |
D.28, D.29, S1.02 |
| endosperm mutants |
D.27 |
| enriched library |
A.29 |
| enzyme assay |
D.70 |
| epialleles |
S1.05 |
| epigenetic |
S1.02 |
| epiphylly |
D.58 |
| epistasis |
C.27 |
| essential oil |
A.56, C.33 |
| EST |
A.40, D.05, D.14, G.15 |
| EST mapping |
D.43 |
| EST random sequencing |
G.22 |
| EST-SSR |
A.40, D.18, D.21 |
| ethylene responsive factors |
1.07 |
| evolution |
A.53 |
| expansin |
F.10 |
| expression analysis |
D.17, D.30 |
|
|
|
|
F |
|
| F1 hybrid breeding |
S2.06 |
| F1 hybrids |
A.30 |
| fAFLP |
A.04 |
| Fagus sylvatica |
G.27 |
| Ficus carica |
G.20 |
| FISH |
A.07 |
| FISH analyses |
D.84 |
| fishes |
A.12 |
| flavonoid biosynthesis |
B.13 |
| flavonoids |
G.03 |
| flavonoids pathway |
D.82 |
| flesh |
D.80 |
| floral gene expression |
D.83 |
| flow cytometric analysis |
A.54, G.01 |
| flow cytometry |
A.37 |
| flower colour |
A.18 |
| flower explant |
A.54 |
| flower size |
A.03 |
| fluorescent fingerprinting |
D.51 |
| food genomics |
B.16, B.17 |
| fresh juices |
B.15 |
| frost resistance |
1.03 |
| fruit flies |
4.02 |
| fruit quality |
1.06 |
| fruit set |
A.20, D.65 |
| fruit weight |
G.18 |
| fumonisins |
C.41 |
| functional foods |
A.41 |
| functional genomics |
C.38 |
| functional map |
G.15 |
| fungal disease |
F.06 |
| Fusarium graminearum |
5.03 |
| Fusarium oxysporum |
S2.01 |
| Fusarium verticilliodes |
C.40, C.41 |
| Fusarium wilt |
D.68 |
|
|
|
|
G |
|
| Ga1 |
D.32 |
| GAD65 |
F.11 |
| gametogenesis |
D.09 |
| GC-MS |
A.55 |
| gene annotation |
D.45, D.52 |
| gene characterization |
1.05 |
| gene cloning |
D.69 |
| gene copy numbers |
4.03 |
| gene discovery |
C.34 |
| gene expression |
B.06, B.13, C.04, D.27, D.44, D.54, D.57, G.25, 2.02, 3.03, 3.04 |
| gene expression analysis |
C.44 |
| gene expression and phenotypic analysis |
C.28 |
| gene family |
D.81 |
| gene identification |
G.22 |
| gene prediction |
D.52 |
| gene regulation |
C.03 |
| gene silencing |
S1.01 |
| gene structure |
D.30 |
| gene transcription |
S1.02, S1.03 |
| genetic and physical map |
G.10 |
| genetic characterization |
A.32 |
| genetic differentiation |
D.14 |
| genetic diversity |
A.33, A.40, A.41, A.55, B.13, G.02, G.05 |
| genetic diversity studies |
A.39 |
| genetic drift |
A.52 |
| genetic fidelity |
A.54 |
| genetic linkage map |
C.43 |
| genetic map |
A.35 |
| genetic resources |
A.31, A.44, G.18 |
| genetic structure |
A.02, D.22 |
| genetic traceability |
A.06 |
| genetic transformation |
G.09 |
| genetic variability |
C.11, G.06 |
| genetically modified organisms |
E.02, E.05, E.08 |
| genome evolution |
C.36 |
| genomic AFLP |
D.05 |
| genomic assembly |
D.46 |
| genomic characterization |
1.03 |
| genomic libraries |
D.42 |
| genomic sequence |
D.46 |
| genomics |
D.39, D.47, 1.09 |
| Genotype x Environment interaction |
C.01 |
| genotype identification |
A.04 |
| genotypic identification |
B.02 |
| geographic structure |
A.52 |
| germplasm collection |
D.20, G.14 |
| germplasm conservation |
D.49 |
| germplasm diversity |
A.45 |
| gliadin |
C.37 |
| global change |
C.05 |
| globe artichoke |
A.30, A.35 |
| Glossy1 |
C.02 |
| glutathione S-transferase |
G.04 |
| Gnomonia leptostyla |
G.21 |
| GO |
D.05 |
| grain filling period |
B.06 |
| grain hardness |
B.05 |
| grain width and weight |
D.16 |
| grain yield |
C.27 |
| grape |
A.06, C.39, D.10, D.37, D.44, D.54, G.10 |
| grape germplasm |
D.50 |
| grapevine |
C.04, D.47, D.55, F.02, G.12 |
| grapevine varieties |
G.13 |
| grazing |
A.17 |
| Green Fluorescent Protein |
E.04 |
| GW2 gene |
D.16 |
| GxE interaction |
A.23 |
| gynogenesis |
S2.05 |
|
|
|
|
H
|
|
| haploids |
S2.06 |
| haploidy |
S2.05 |
| haplotype sharing |
A.50 |
| hardness |
B.04 |
| heat stress |
D.24 |
| heavy metals |
C.08, C.11 |
| Helichrysum italicum (Roth) G. Don |
A.55 |
| helitron |
D.13 |
| herbicide tolerance |
G.24 |
| heritability |
G.26 |
| heterologous hybridization |
D.64 |
| heterosis |
D.25 |
| heterozygosity levels |
2.02 |
| HIF |
D.25 |
| high-amylose |
B.08 |
| higher genotypes selection |
1.05 |
| high-throughput experiments |
D.27 |
| histone acetylation |
S1.06 |
| histone deacetylases |
S1.03 |
| hitchhiking |
D.23, D.72 |
| HIV |
F.01, F.12 |
| homeobox transcription factors |
D.62 |
| homozygosity |
S2.05 |
| horizontal gene transfer |
G.24 |
| horticultural traits |
D.63 |
| HPLC |
B.12 |
| HPLC-DAD-MS |
C.30 |
| HSP70 |
F.15 |
| human impact |
3.05 |
| human proinsulin |
F.08 |
| hybrids |
A.53 |
| hydroxycinnamoyltransferases |
A.35 |
| Hypericum perforatum L. |
D.74 |
| hypoxia |
G.19 |
|
|
|
|
I |
|
| IkB |
C.45 |
| image analysis |
A.28 |
| immunoglobulin |
F.07 |
| immunolocalization |
C.45 |
| in situ hybridization |
D.41 |
| in vitro androgenesis |
S2.02 |
| in vitro culture |
A.54 |
| in vitro fungal growth |
A.56 |
| in vitro selection |
E.05 |
| inbreeding depression |
A.21 |
| indigo |
D.36 |
| indole |
D.36 |
| inducible system |
C.48 |
| inductive genetics and function |
5.04 |
| inheritance of flower color |
A.10 |
| inositol phosphate kinases |
2.03 |
| insect pest control |
4.02 |
| insecticide resistance |
D.08 |
| insertional mutagenesis |
D.60 |
| in situ hybridization |
G.03 |
| integrated map |
D.32 |
| Inter Simple Sequence Repeat |
A.33 |
| Interleukin-10 |
F.05 |
| internal control |
D.76 |
| interspecific hybridization |
A.18 |
| interspecific hybrids |
S2.04 |
| introgression |
G.18 |
| introgression lines |
A.09 |
| IRAP |
G.13 |
| Isatis tinctoria |
A.21, D.36 |
| isoprenoids |
F.03 |
| isoprenoids pathway |
D.82 |
| ISSR |
A.36, D.67, D.73, G.02, G.20 |
| Italian rice germplasm |
A.43 |
| Italy |
A.53 |
|
|
|
|
J |
|
| Juglans spp. |
G.21 |
| Juvenility |
G.01 |
|
|
|
|
K |
|
| Kalanchoe xhoughtonii |
D.78 |
| kenaf |
D.69 |
| knox genes |
D.78 |
|
|
|
|
L |
|
| labelling |
E.08 |
| laccase |
C.19 |
| landscape genetics |
G.27 |
| laser microdissection |
C.39 |
| LAT52 gene |
E.06 |
| Lathyrus sativus L. |
C.01 |
| LCM |
D.01 |
| leaf agroinfiltration |
E.04 |
| leaf development |
D.62 |
| leaf rust resistance |
C.43, 1.04 |
| leaf stripe |
C.44 |
| LEAFY COTYLEDON1-LIKE gene |
D.58 |
| Lens culinaris |
A.26, A.28 |
| lesion mimic mutant |
C.35 |
| life cycle |
A.02 |
| lignin |
D.69 |
| linkage |
G.15 |
| linkage analysis |
A.29 |
| linkage disequilibrium |
A.11, A.46, G.07, 1.02 |
| linkage map |
D.19, D.74 |
| linkage mapping |
D.43 |
| lipoxygenase |
B.06, D.81 |
| liquid chromatography |
C.15 |
| LMW-GS |
A.05 |
| local variety |
A.26, A.28 |
| Lombardy |
A.45 |
| low phytic acid |
S1.01 |
| low temperature |
C.03 |
| low-abundant proteins |
D.71 |
| low-input farming system |
A.23 |
| LTR retrotransposon |
C.36 |
| Lycopersicon esculentum |
C.22 |
|
|
|
|
M
|
|
| MADS-box genes |
D.17 |
| maize |
A.44, D.13, D.25, D.28, D.33, S1.01 |
| major gene introgression |
C.37 |
| male sterility |
A.30 |
| Malus x domestica |
G.15, G.16, 1.06 |
| mantling |
D.83 |
| marker development |
G.15, 1.06 |
| Marker-Assisted Selection (MAS) |
A.22, A.27, B.11 |
| markers |
D.18 |
| markers development |
G.22 |
| mating system |
A.21 |
| Medicago sativa L. |
A.17, A.27, D.59, E.02, E.05 |
| Medicago truncatula |
D.60, D.62 |
| megagametogenesis |
D.75 |
| megasporogenesis |
D.75 |
| meiosis |
D.01, D.84, S1.06 |
| Meloidogyne spp. |
A.19 |
| melon |
D.07 |
| membrane proteins |
F.01, F.12 |
| MEP pathway |
F.03 |
| metabolic engineering |
F.19 |
| metal hyperaccumulator |
C.15 |
| MFDP markers |
D.74 |
| microalgae |
C.19 |
| microarray |
B.14, C.05, C.31, D.44, D.54, D.57, D.59, D.66, D.11, 3.04, 1.07 |
| microelements |
A.42 |
| microRNA |
C.17, D.47 |
| microsatellite |
A.13, A.29, A.31, D.21, G.22, G.23 |
| microsatellite marker |
G.27 |
| microspore embryogenesis |
S2.06 |
| mitochondrial genes |
D.28 |
| Mob genes |
D.04 |
| mode of reproduction |
D.43 |
| molecular characterization |
A.28, D.07 |
| molecular farming |
F.05, F.13, F.16 |
| molecular mapping |
C.20 |
| molecular maps |
D.18 |
| molecular markers |
A. 09, A.26, A.45, C.11, D.32, D.72, G.05, G.11 |
| molecular traceability |
B.01 |
| MON810 event |
E.01 |
| morphogenesis |
D.04, G.09 |
| morphological characters |
A.33 |
| morphological traits |
A.45 |
| mRNA |
C.03 |
| MSAP |
D.59, S1.05 |
| mtDNA barcoding |
A.12 |
| multi-level computational environment |
D.02, D.03 |
| multivariate analyses |
C.01 |
| Muscat flavour |
G.14 |
| mutagenesi |
A.10 |
| mutant |
S1.01 |
| mutation |
D.48 |
| mutator transposon |
C.36 |
| Myb |
D.61 |
| Myb transcription factor |
C.13 |
| myo-inositol 1-phosphate synthase |
2.03 |
|
|
|
|
N
|
|
| NBS-profiling |
G.21 |
| Near-Isogenic-Lines |
B.04 |
| Nef |
F.14 |
| Nef protein |
F.13 |
| Neogene |
A.52 |
| Nicotiana |
D.67 |
| Nicotiana benthamiana |
F.08, F.09, F.17 |
| Nicotiana tabacum |
C.45, F.05 |
| NIL |
D.25 |
| nitric oxide |
C.14 |
| normalization |
D.76 |
| novel crops (exotic species) |
A.41 |
| nuclear RNA-binding protein |
C.28 |
|
|
|
|
O |
|
| oidium |
C.39 |
| Oidium neolycopersici |
1.08 |
| oil palm |
D.83, D.84 |
| ol-2 resistance gene |
1.08 |
| old and new bread wheat varieties |
B.03 |
| Olea europaea L. |
A.38, C.30, G.05, G.06, G.07, G.08 |
| oligo-array |
D.38 |
| olive oil |
B.16 |
| on-farm conservation |
A.01 |
| Opaque2 |
S1.02 |
| oral tolerance |
F.05 |
| orthologous genes |
D.40 |
| Oryza sativa ssp. japonica |
B.11 |
| Osmyb4 |
D.40 |
| outlier loci |
A.01 |
| overdominance |
A.24 |
| oxidative stress |
1.07, C.35 |
| ozone stress |
C.07 |
|
|
|
|
P
|
|
| Poa pratensis |
D.41, D.42 |
| p24 |
F.12 |
| paralogs |
C.09 |
| parasitoid |
C.48 |
| parthenocarpy |
A.20, D.65 |
| parthenogenesis |
S1.04 |
| Paspalum simplex |
S1.04 |
| pat-2 |
A.20 |
| pathogen resistance |
C.38 |
| pbsk |
G.08 |
| PCR-marker |
1.09 |
| PEG |
D.71 |
| pentatricopeptide repeat protein |
D.28 |
| pepper |
D.63 |
| pepper breeding |
S2.03 |
| pests |
4.02 |
| Petunia hybrida |
F.10 |
| PG |
5.03 |
| PGIP |
C.36, 5.03 |
| Phaseolus vulgaris L. |
A.46, A.47, A.48, 2.03 |
| phenolics |
C.21 |
| phenology |
3.02 |
| phenotyping |
A.43 |
| phisical mapping |
1.05 |
| phosphorous |
A.42, 2.03 |
| photoinhibition and photoprotection |
5.04 |
| photoperiod |
G.26 |
| photoreceptors |
5.02 |
| phyllosphere yeasts |
B.02 |
| phylogenesis |
D.04, D.17 |
| phylogenetic analysis |
C.11, D.39 |
| phylogeny |
D.78 |
| phylogeography |
A.50 |
| physical map |
D.18, D.51 |
| physiology |
C.05 |
| phytate |
A.42 |
| phytochelatin |
C.14 |
| phytoextraction |
C.08 |
| phytoremediation |
C.12, C.19 |
| PIN-formed |
D.26, D.29 |
| Pinot Noir gene prediction |
D.45 |
| Pinot Noir genome |
D.52 |
| Pinus pinea |
A.40, 3.05 |
| plant development |
S1.03 |
| plant disease |
C.32, C.41, D.07, D.68, D.82, G.16 |
| plant genetic resources |
A.43 |
| plant insect interactions |
C.46 |
| plant morphology |
A.17 |
| plant pathogens resistance |
F.04 |
| plant performance |
A.14 |
| plant protein extraction |
D.56 |
| plant regeneration |
A.54, E.07 |
| plant reproduction |
D.09, 1.05 |
| plant transformation |
C.48, F.13 |
| plant vaccine |
F.09 |
| plant-microbe interaction |
C.38 |
| plasmid |
E.06 |
| Plasmopara viticola |
C.31, C.32 |
| plastid biogenesis |
D.38 |
| plastid genes |
A.06 |
| plastids |
F.03 |
| ploidy |
A.07 |
| Pm21 |
C.37 |
| polar auxin transport |
D.26, D.29 |
| pollen embryogenesis |
S2.05 |
| polyammines |
C.35 |
| polyhistidine |
C.08 |
| polymerase chain reaction |
B.07 |
| polyphenols |
C.30 |
| polyploidy |
D.59 |
| poplar |
C.05, C.10, 3.04 |
| population genomics |
A.47 |
| population structure |
A.31, A.46 |
| Populus |
C.07, 3.02 |
| Populus alba |
C.06, E.03, G.25, 3.03 |
| Populus nigra |
C.09 |
| Populus spp. |
G.26 |
| positional cloning |
D.32, D.65 |
| potato virus X |
F.09 |
| powdery mildew |
C.37 |
| powdery mildew resistance |
A.13 |
| promoter |
D.42 |
| prosystemin |
C.22 |
| protein accumulation |
F.14 |
| protein bodies |
F.14 |
| Protein Disulfide Isomerase (PDI) gene family |
D.30 |
| protein purification |
F.13 |
| protein sorting |
F.12 |
| proteome |
D.24, D.56 |
| proteomics |
D.71, D.79 |
| protoplast fusion |
S2.01 |
| Prunus persica |
G.17 |
| PTGS |
C.46 |
| puroindolines |
B.04, B.05 |
| PVX |
F.08, F.17 |
| PVX agroinfection |
F.10 |
|
|
|
|
Q
|
|
| qPCR |
B.01, D.69 |
| QTL |
A.09, A.35, C.20, D.23, D.25, D.63, 1.03 |
| QTL analysis |
C.27, G.12, G.14 |
| QTL cloning |
1.02 |
| QTL effects |
A.24 |
| QTL mapping |
1.06 |
| quality traits |
A.14 |
| quantitative real-time PCR |
4.03 |
| quantitative trait loci |
D.31 |
| Quercus |
A.53 |
| Quercus suber |
A.52 |
| quinoa |
A.41 |
|
|
|
|
R |
|
| ramosa1 gene |
A.03 |
| RAPD |
G.02 |
| rbcL |
B.15 |
| reactive oxygen species |
C.21 |
| Real-Time PCR |
D.41, D.61, D.76, E.06, E.08, G.03 |
| Real Time RT-PCR |
G.16 |
| recombinant allergens |
F.17 |
| recombinant proteins |
F.08 |
| reference genes |
D.37 |
| reference materials |
E.06 |
| refuge area |
G.27 |
| regulated genes |
G.19 |
| REMAP |
G.13 |
| repetitive DNA |
D.10 |
| reproductive biology |
A.30 |
| reproductive mode |
A.02 |
| resistance |
A.19, C.41, C.48, G.21, 1.09 |
| resistance gene |
C.32, C.40, D.50, D.82, G.16 |
| respiratory activity |
D.06 |
| resveratrol |
D.50, G.24 |
| reticulation |
A.53 |
| retrotransposon |
G.13 |
| rhizomatous habit |
A.17 |
| rhizosecretion |
F.15 |
| ribosome-inactivating-protein |
C.40 |
| rice |
C.18, C.38, C.49, D.39 |
| RIL population |
A.24 |
| ripening |
D.54 |
| ripening and fruit quality |
D.79 |
| ripening time |
G.12 |
| RNA interference |
A.07, C.13 |
| rolD |
C.29 |
| root |
C.10, C.29 |
| root development |
D.31 |
| root vitality |
G.19 |
| roots fungal endophytes |
C.49 |
| rootstocks |
C.04 |
| RT qPCR |
D.37 |
| RT-PCR |
C.17 |
| RuBisCO |
D.71 |
|
|
|
|
S |
|
| salinity stress |
3.03 |
| salinity tolerance |
C.20 |
| salt stress |
C.21 |
| SAMOVA |
A.50 |
| saponin |
A.18 |
| SCAR markers |
A.19 |
| sectorial chimeras |
A.10 |
| seed set |
D.09 |
| seedlessness |
G.12 |
| selection |
A.01, A.47 |
| selective sweep |
D.23 |
| seminal root |
D.31 |
| semi-quantitative RT-PCR |
B.06 |
| sensory evaluation |
B.03 |
| sequence polymorphism |
A.48 |
| setting |
A.21 |
| sexual hybridization |
S2.01 |
| SGP-1 |
B.10 |
| shoot apical meristem |
D.33 |
| shootmeristemless mutant |
D.33 |
| signal peptidase |
C.47 |
| signal peptide |
F.15 |
| smallpox |
F.09 |
| SNP detection |
D.45 |
| SNPlexTM |
A.39 |
| SNPs |
A.11, A.38, A.39, D.14, D.15, G.07 |
| soil |
C.04 |
| soilborne pathogen |
D.07, D.68 |
| Solanaceae |
C.34 |
| Solanaceae genomics |
D.02, D.03 |
| Solanum bulbocastanum |
B.12 |
| Solanum habrochaites |
A.09 |
| Solanum lycopersicum |
A.25, E.06, F.18 |
| Solanum melongena |
A.25 |
| Solanum spp |
S2.01 |
| Solanum tuberosum |
B.12, D.59, D.64 |
| somaclonal variation |
D.83, D.84, G.01 |
| somatic embryogenesis |
D.58, G.01 |
| somatic hybrids |
A.37 |
| sourdough bread |
B.03 |
| Southern blot |
4.03 |
| species identification |
A.12 |
| SPS |
C.29 |
| SSR |
A.01, A.26, C.20, D.19, D.49, D.73, G.05, G.06, G.11, G.20 |
| SSR markers |
A.02, B.16, B.17, 2.02 |
| stability |
C.01 |
| starch |
B.08, B.09, B.10 |
| starch quality |
B.11 |
| starch synthase |
B.10 |
| stem development |
G.17 |
| stilbene synthase |
D.50, F.02 |
| stilbenes |
D.53 |
| stomatal conductance |
C.25 |
| strawberry |
D.79 |
| strawberry fruit |
B.13 |
| stress resistance |
C.26 |
| stress resistance gene |
5.01 |
| stress tolerance |
A.59, C.02, D.40 |
| stress tolerance genes |
C.06 |
| StSy |
G.24 |
| sucrose |
D.76 |
| sugar beet |
D.76, D.77, E.07 |
| sulphur starvation |
C.17 |
| sunflower |
A.58 |
| suppression-subtractive hybridisation |
G.25 |
| sweet blue lupine |
A.15 |
| SWI1 |
D.06 |
| synteny |
D.32 |
|
|
|
|
T |
|
| tannins |
D.61 |
| terpenes |
C.46 |
| terpenoids |
D.53 |
| testcross performance |
A.24 |
| tetraploid wheat |
A.05, A.13 |
| therapeutic antibodies |
F.06 |
| Thinopyrum ponticum |
1.04 |
| Thlaspi caerulescens |
C.15 |
| TILLING population |
A.58 |
| TNT1 |
D.60 |
| tobacco |
F.02, F.03, F.15, F.16 |
| tobacco leaves |
B.02 |
| tolerance |
C.10 |
| tomato |
A.20, C.35, D.65, D.66, 1.08, 1.09, 5.02 |
| tomato genome sequencing project |
D.02, D.03 |
| Tomentosae |
D.67 |
| traceability |
B.03, B.15, E.08 |
| transcription factors |
C.38, D.61 |
| transcription genomic variation |
E.03 |
| transcription profiling |
5.02 |
| transcriptional profiling |
C.21 |
| transcriptome |
D.75, 3.03 |
| transcriptomic |
D.27, D.68 |
| transduplication |
D.13 |
| transformation |
E.03, F.02, F.03 |
| transgenesis |
4.02 |
| transgenic event |
E.08 |
| transgenic lines |
4.03 |
| transgenic plant |
C.08, F.01, F.07, F.11 |
| transgenic rice |
D.40 |
| transgenic tobacco |
F.04 |
| transient plant expression |
F.06 |
| translocation efficiency |
C.47 |
| transposable elements |
D.10, D.48 |
| TRI101 |
5.03 |
| Trichoderma viride |
F.18 |
| triterpenoid saponins |
F.19 |
| Triticeae |
B.05 |
| Triticum durum |
C.23, 1.04 |
| Triticum urartu |
D.16 |
| trnK-rps16 |
G.08 |
| trnT-trnD |
G.08 |
| tryptophan synthase alpha-subunit |
D.36 |
| Tuber melanosporum |
A.02 |
| two-dimensional gel electrophoresis |
D.24 |
|
|
|
|
U |
|
| UV radiation |
D.70 |
| UVB |
C.05 |
| UVB stress |
C.06 |
|
|
|
|
V
|
|
| Vaccinia virus |
F.09, F.16 |
| vacuolar pH |
D.55 |
| valorisation |
A.44 |
| variety identification |
G.06 |
| vector backbone |
E.02 |
| vegetative vivipary |
D.78 |
| Venturia inaequalis |
G.16 |
| vernalization |
A.07 |
| Verticillium dahliae |
S2.01 |
| Vetiver root |
C.33 |
| VHb haemoglobin gene |
G.09 |
| VIGS |
1.08 |
| viral gene |
C.48 |
| Vitis |
D.49 |
| Vitis spp. |
A.39 |
| Vitis vinifera L. |
C.31, C.32, D.48, D.50, D.51, D.53, D.56, D.57, E.04, G.09, G.11, G.13, 1.07, 4.03 |
| Vitreoscilla stercoraria |
G.09 |
| vivipary |
D.35 |
|
|
|
|
W
|
|
| wall-associated kinase |
C.07 |
| water shortage |
A.14 |
| water stress |
C.24, D.57, 3.04 |
| water stress tolerance |
C.28 |
| waterlogging tolerance |
G.19 |
| waxy |
B.08, B.09 |
| wheat |
A.59, B.08, B.09, B.10, C.36, D.17, D.30, 5.03 |
| wheat kernel proteins |
D.24 |
| wheat wild relatives |
D.14 |
| white poplar |
3.03 |
| wild almond |
G.18 |
| wild germplasm |
A.31 |
| wild potato species |
A.08 |
| wild species |
A.09, 1.09 |
| wild wheats |
B.05 |
| wine traceability |
B.17 |
| withering |
D.54 |
| workflow development |
B.01 |
| WRKY transcription factor |
C.07 |
| WUE |
A.14 |
|
|
|
|
Y
|
|
| yeast |
D.06, F.19 |
| yellow endosperm pigmentation |
1.04 |
| yield potential |
5.01 |
| yield stability |
C.24 |
| yoghurt |
B.02 |
|
|
|
|
Z
|
|
| Zea mays L. |
A.03, A.24, A.45, C.02, C.40, C.41, C.42, D.26, D.29, E.01, S1.02, S1.03 |
| zein |
F.14 |
| zigotic and nucellar embryos |
A.36 |
| zip genes |
C.18 |
|
Istituto Agrario San Michele all'Adige
