(+)-germacrene A terpene synthase |
8.21 |
1000 Genomes project |
3B.02 |
14-3-3 protein |
2C.12 |
2D electrophoresis |
2A.73, 2A.77, 7.29 |
3D crystallization |
9.37 |
454 sequencing |
7.12 |
454-reads |
2A.76 |
5’UTR variants |
6B.06 |
5A chromosome |
2A.75 |
5-azaCytidine |
2A.01 |
5s rRDNA NTS |
2A.16 |
5'-Tyrosyl-DNA phosphodiesterase |
6A.44 |
6 Kb palindromic structure
|
2A.03 |
A
|
|
A. officinalis |
2A.14 |
A/B-genome |
6A.09 |
ABA |
2A.68 |
ABC transporter |
2B.10 |
aberrant mRNA-splicing |
6A.36 |
abiotic
stress |
1.02, 2A.40, 2A.70, 2C.02, 6A.37, 8.04, 9.19 |
abscisic
acid |
8.04 |
acclimation |
4.04 |
ACL |
9.54, 9.55 |
activity-of-bc1-complex
family |
2C.04 |
acute ozone stress |
9.43 |
adaptive evolution |
2A.10 |
Adriano Buzzati-Traverso
|
3C.01 |
AFLP |
2A.18, 2A.42, 3A.17, 5C.08, 9.18 |
AFLP
markers |
5C.09 |
agamic
propagation |
3A.03 |
AGAMOUS-like gene |
2A.57 |
AGEs |
5A.05 |
aggressive
periodontitis |
6B.05 |
aging |
1.07, 9.48 |
Aglianico |
3A.17 |
agricultural
residue |
5C.03 |
Agrobacterium
tumefaciens |
5C.06 |
Agrobacterium
tumefaciens-mediated transformation |
4.07 |
agroinfiltration |
5C.15 |
AHAS-inhibiting
herbicides |
9.07 |
albino
leaves |
2C.09 |
alfalfa |
9.24, 9.25, 9.26, 9.28 |
algae |
5C.04 |
alien
gene transfer |
6A.20 |
alkalization |
9.19 |
allergenicity |
3A.21 |
allergens |
5C.15 |
allergies |
8.12 |
almond |
9.40 |
alternative
splicing |
2A.04, 2A.25 |
AM fungi
|
7.28 |
amino
acid inhibitors as herbicides |
6A.41 |
aminobisphosphonates |
6A.41 |
amiprophos-methyl |
9.11 |
amorpha-4,11diene
synthase |
6A.47 |
ampelography |
3A.17 |
amylases |
5B.01 |
ancient
DNA |
9.21, 9.45 |
Antarctic
krill |
2A.59 |
anthocyanin |
2A.26,
3A.09, 6A.23, 6A.32, 8.18, 8.31 |
anthocyanin
mutants |
8.28 |
antinutritional
factors |
8.19 |
antioxidant |
6A.48, 7.13, 8.01, 8.28, 8.32 |
antioxidant
compounds |
8.14 |
antioxidant
enzyme |
6A.35 |
AP1 |
2A.30 |
aphid
|
2A.63 |
apoptosis |
2A.58 |
Approximate
Bayesian Computation |
9.45 |
aquaporins |
6A.05 |
Arabidopsis |
1.13, 2A.78, 5B.01, 7.40 |
Arabidopsis
thaliana |
1.12, 2A.04, 2A.51, 2B.06, 2C.12,
5B.02, 5B.03, 6A.45, 7.14, 7.34, 7.38, 7.41 |
arbuscular
mycorrhiza |
7.05 |
arbuscular
mycorrhizal symbiosis |
2C.03 |
ARDRA |
7.27 |
arsenic |
2C.13 |
Artemisia |
5C.05 |
Artemisia annua |
6A.47 |
Artemisia
umbelliformis |
5C.09 |
artemisinin |
5C.05, 6A.47 |
artichoke |
1.06, 2A.43 |
artificial
inoculation |
7.07 |
Arundo donax |
5C.07 |
ascorbate peroxidase
|
8.26 |
ascorbic acid |
8.27, 8.34 |
ascorbic acid degradation |
8.07 |
asparaginyl
peptidase |
2A.82 |
Asplenium
nidus |
2A.15 |
association
analysis |
6A.19 |
association mapping |
2A.79, 6A.12, 6A.16, 6A.28 |
association
study |
3A.20 |
Asteraceae |
9.10 |
ATP
synthesis |
2C.05 |
authentication |
9.20 |
autophagy |
9.50 |
autoregulation
of nodulation |
7.37 |
auxin |
6A.24, 9.32 |
auxin
biosynthesis |
6A.26 |
axillary meristem
|
2A.19 |
B |
|
BAC
probes |
2A.65 |
Bacillus
subtilis |
5C.13 |
bacterial
endophytes |
7.27 |
barcode |
3A.23 |
barcoding |
2A.73, 9.13 |
barley |
7.15, 9.01, 9.04 |
base
composition |
9.52 |
bean
resistance |
7.30 |
bean
weevils |
7.30 |
berry
color |
2A.12 |
beta-carotene |
8.09 |
bHLH |
2A.37 |
big
bud mite |
3A.06 |
BILs |
2A.53 |
bioactive
compounds |
8.23 |
biochemical
and transcriptional analysis |
2A.35 |
biocontrol
agent |
2A.52 |
biodiesel |
6A.46 |
biodiversity
|
9.46 |
biodiversity
conservation |
9.16 |
bioethanol |
5C.11 |
biofuel |
5C.03,
5C.04, 5C.10 |
bioinformatics |
2A.49, 2A.86, 4.15, 7.07 |
biological
activity |
5C.08 |
biomass |
5C.07, 5C.12, 6A.37 |
biopharmaceuticals |
5C.14 |
bioremediation |
5C.02 |
biosynthetic
genes |
9.22 |
biotechnological
manipulation |
4.01 |
biotic
stress |
7.41, 6A.37 |
biotic
stress tolerance |
2A.52, 7.28 |
biotype |
3A.17 |
Blast2GO |
2A.31 |
blind
analysis |
8.29 |
Bos
primigenius |
9.51 |
Botrytis cinerea
|
7.34 |
bovine |
2A.13 |
bovine mitochondrial DNA |
9.51 |
Brachypodium distachyon |
2A.17 |
Brassica oleracea |
1.10 |
Brassica
rapa L. cv. sylvestris |
8.25, 8.27 |
bread-making
quality |
7.32 |
breeding |
3A.20, 8.28, 9.15 |
BTH |
7.39 |
bud
set |
6A.39 |
bud
sprouting |
3A.05 |
C |
|
cadmium |
2B.06 |
cadmium
treatment |
2B.09 |
calcium |
9.33 |
calcium
homeostasis |
2C.02 |
Camelus
dromedarius |
2A.62 |
cAMP-sponge |
4.07 |
candidate
genes |
2A.10, 2A.50, 6A.03 |
carbohydrates |
3A.02, 5C.04 |
carotenoid |
2B.11, 4.03, 8.13 |
carotenoid
bleaching |
3A.11 |
carotenoid
pathway |
2A.28, 8.06 |
carotenoid
pigments |
6A.17 |
Castanea sativa |
3A.07 |
cattle |
9.46 |
CCCH
zinc finger domain |
2A.78 |
CDKN2A
|
6B.06 |
cDNA
microarray |
7.11 |
cell
adhesion morphogenesis |
6B.02 |
cell
cultures |
5C.05, 8.24 |
cell
cycle |
5A.03, 9.53 |
cell
cycle regulation |
7.06 |
cell
division |
5A.04 |
cell
expansion |
2A.19 |
cell
migration |
2A.08 |
cell
proliferation |
2A.08 |
cell
wall |
2A.19, 7.20, 9.32 |
cell
wall degrading enzymes |
5C.03, 7.09 |
cellular redox state |
7.06 |
cellulase
|
5C.11, 5C.13 |
cellulose |
5C.13 |
cellwall
reinforcement |
7.22 |
Centaurea |
9.41 |
centromere |
1.04 |
centromeric
sequences |
2A.46 |
Cetartiodactyla |
2A.60 |
cGMP |
7.41 |
changing
phase |
3A.03 |
chemotipes |
5C.08 |
chestnut |
3A.07 |
chilling
units |
3A.05 |
chimeric
photoreceptors |
2A.66 |
ChIP-seq
|
2A.30 |
chitosan |
7.33 |
Chlamydomonas
reinhardtii |
2B.11 |
chlorogenic
acid |
8.31 |
chlorophyll
fluorescence |
3A.12 |
chloroplast |
2A.27, 2B.04, 2B.08, 2C.04, 7.35, 9.36 |
chloroplast
DNA analysis |
9.21 |
Chondrilla |
1.02, 5A.04, 6B.01, 9.14 |
chromatin
remodelling |
1.14 |
chromosomal
rearrangements |
2A.80 |
chromosome |
9.54 |
chromosome
5A |
2A.83 |
chromosome
aberrations |
5A.05, 9.53 |
chromosome
abnormality |
9.46 |
chromosome
engineering |
6A.20, 6A.21 |
chromosome
evolution |
2A.65 |
chromosome
pairing |
9.28 |
chromosome
segregation |
5A.04, 9.55 |
Chrysanthemum
cinerariaefolium L. |
9.10 |
Chrysolina
herbacea |
7.26 |
Cichorium
|
9.14 |
Cichorium
intybus L. |
6A.04 |
circadian clock |
2A.59 |
Citrus |
3A.08, 7.29 |
Citrus
rootstock |
3A.04 |
Citrus
sinensis |
6A.34 |
Claviceps
purpurea |
7.21 |
clearfield
rice |
9.07 |
CM proteins nitrogen
fertilization
|
8.12 |
cognitive
decline |
9.48 |
colchicine |
9.11 |
cold
shock domain protein |
2A.08 |
cold
storage |
8.23 |
cold
stress |
3A.12, 9.36 |
cold
treatment |
6A.38 |
CombiMatrix
Array |
3A.04 |
common
bean |
8.04, 9.27 |
common
fragile sites |
6B.08 |
complex N-glycans
|
2B.05 |
component
resolved diagnosis |
8.16 |
computational
pipeline |
4.05 |
consensus
map |
2A.80 |
conservation
genetics |
9.41 |
conservation
measure |
8.08 |
control
analysis |
4.01 |
crop
evolution |
9.17, 9.29 |
crop
productivity |
6A.04 |
crop residue
|
5C.03 |
crop
safety |
2C.13 |
cry gene |
2A.45 |
cryptic
variation |
2A.56 |
crystal-Stellate |
2A.56 |
CTV |
7.29 |
C-type
LMW-GS |
2A.77 |
Culex
quinquefasciatus |
2A.64 |
cultivated
cardoon |
5C.12 |
cyanophicin |
5C.01 |
cybrid
cell lines |
1.05 |
cyclodextrins
|
5C.05 |
Cycloidea-like
genes |
2A.41 |
Cynara
cardunculus |
2A.43, 8.21, 9.12 |
cysteine |
9.38 |
cytochrome
c |
6B.04 |
cytochrome
P450 |
7.25 |
cytogenetic map
|
2A.02, 2A.75 |
cytokine
genes |
6B.05 |
cytokinesis |
9.54 |
cytokinin
signalling |
7.01 |
cytokinin-auxin
crosstalk |
9.30 |
cytokinins |
7.42 |
cytoplasmic
DNA |
2A.85 |
cytosine
methylation |
1.03 |
CzcCBA
transporter |
4.10 |
D
|
|
Damage-associated
molecular patterns (DAMPs) |
7.36 |
DArT
markers |
6A.13, 6A.16 |
Daucus
carota |
7.05 |
de
novo assembly |
2A.36 |
debranching enzymes |
5B.01 |
deep
sequencing |
1.06 |
defence
genes |
7.11, 7.18, 9.33 |
defence
proteins |
7.30 |
defence
response |
7.19, 7.34 |
deficiens |
6A.31 |
Dendrobium |
9.09, 9.11 |
Dermatophagoides
pteronyssinus |
5C.15 |
desaturases |
3A.16 |
detoxification |
6A.34 |
development |
6A.24 |
DGAT |
5C.06 |
Diabrotica
virgifera virgifera |
7.31 |
dicaffeoylquinic
acids |
8.03 |
DICER-LIKE
4 |
2A.09 |
differential
gene expression |
2A.05, 3A.04 |
disease |
8.01 |
disease resistance
|
7.24 |
DNA
barcoding |
9.21 |
DNA
extraction |
8.20 |
DNA
methylation |
1.08, 1.11 |
DNA
methyltransferase genes |
9.24 |
DNA
polymerase gamma pathological mutation |
6B.10 |
DNA
polymerase zeta |
6B.10 |
DNA
repair |
6A.44 |
DNA
repair foci |
9.53 |
DNA-methylation |
1.09 |
domain |
2A.54 |
domestication |
5A.02, 9.12, 9.17, 9.51 |
downy mildew
|
2A.40 |
DREB genes
|
2A.81 |
Drosophila |
5A.04, 5A.05, 9.54, 9.55 |
Drosophila
melanogaster |
2A.56 |
drought |
2A.72, 6A.05, 6A.27, 6A.30 |
drought
stress |
6A.08 |
drought
tolerance |
6A.01 |
Duplex
PCR |
8.33 |
durum
wheat |
2A.01, 2A.75, 2A.77, 2A.78, 2A.79, 2A.80, 2A.81, 6A.07, 6A.10, 6A.14, 6A.15, 6A.18, 8.12, 8.13, 9.01, 9.08 |
durum wheat (Triticum durum Desf.) |
6A.12, 6A.13 |
durum wheat mitochondria |
2C.05 |
E |
|
E7 protein |
9.31 |
early
nodulin |
7.08 |
ecology |
4.06, 4.13 |
EcoTILLING |
3A.15 |
ectodermal
dysplasia |
6B.02 |
ectomycorrhizae |
9.39 |
ectopic
expression |
2A.21 |
eggplant |
6A.33, 7.17 |
elicitors |
7.34 |
elongation |
4.04 |
EMS |
6A.17 |
endangered breed
|
9.46 |
endemic
species |
9.41 |
endo-1,4-beta-glucanase |
5C.13, 7.09 |
endoplasmic
reticulum |
2B.07 |
endoreduplication |
6A.26 |
endosperm |
6A.26 |
endosperm
mutant |
4.12, 4.15 |
energy
crop |
5C.07, 5C.12 |
Enhancer
Tetraplex 3D conformation |
2A.03 |
ent-kaurenoic
acid oxidase |
6A.36 |
environmental
associations |
2A.10 |
environmental
changes |
9.41 |
environmental
security |
3A.07 |
environmental
stress |
1.08, 2C.05 |
epigenetic |
1.02, 1.07, 1.13, 1.14, 6B.01, 8.18, 9.24 |
epigenetic
marks |
1.08 |
epigenetic
regulation |
1.04 |
epiphilly |
2A.31 |
epistasis |
6B.05 |
epithelial
development and differentiation |
6B.03 |
er1
resistance |
7.04 |
ERF
(Ethylene-Responsive Factor) |
6A.45 |
EST-SSRs |
2A.55 |
ethylene |
7.25 |
European
aurochsen |
9.51 |
evergrowing |
3A.05 |
evolution |
2A.02, 2A.71, 4.05, 4.06, 4.13 |
evolutionary synthesis |
3C.03 |
expansin |
2A.19 |
experimental
mutagenesis |
7.04 |
expression
analysis |
2A.72 |
expression-QTL
mapping |
2A.72 |
F |
|
F1
hybrids |
6A.04 |
fAFLP |
9.08 |
fatty
acid |
3A.16 |
fertility |
5A.03 |
FHB
resistance |
6A.21 |
filbert
tree |
3A.06 |
fine
mapping |
6A.14 |
fingerprinting |
9.08 |
FISH |
2A.02, 9.02 |
flavonoids |
2A.35, 2A.37, 3A.19 |
floral
meristem |
2A.30 |
floral
symmetry |
2A.41 |
floral
transition |
2A.30, 9.03 |
flow cytometry |
9.02 |
flow
cytometry and sorting |
9.11 |
flower
development |
2A.57 |
flowering |
1.14, 4.04 |
flowering
regulome |
3A.03 |
flowering
time |
1.03 |
flower-organ
identity genes |
3A.24 |
fluorescence
resonance energy transfer (FRET)-based indicator |
2C.02 |
folding |
2B.08 |
food |
8.01 |
food
allergens |
8.15 |
food
allergy |
8.16 |
food
genomics |
8.20 |
food
labelling |
8.15 |
food preferences |
3B.03 |
FORL |
7.25 |
fructan |
8.01 |
fruit
development |
3A.05 |
fruit
quality |
3A.20, 6A.48 |
fruit
set |
6A.43 |
fruit
tree breeding |
3A.06 |
FTIR
spectroscopy |
5C.04 |
functional
food |
3A.11, 8.18 |
functional
genomics |
2A.04, 2A.25 |
functional
markers |
6A.19 |
fungal
and bacterial pathogens |
7.02 |
fungal
disease |
4.13 |
fungal
inoculation |
7.17 |
fungal
proteins |
7.11 |
Fusarium ear rot |
7.24 |
Fusarium
oxysporum |
7.17 |
Fusarium
verticillioides |
7.07 |
G
|
|
G6PDH |
6A.42 |
GAD65 |
5C.17 |
GAD65mut |
5C.16 |
GAPC |
2B.06 |
gas
exchange |
2C.06 |
gene |
2A.02, 4.05, 6B.01 |
gene
cluster |
2A.54 |
gene
expression |
2A.27, 4.06, 5C.05, 8.26 |
gene
expression analysis |
6A.29 |
gene
expression profiling |
2A.36 |
gene
family |
3A.21 |
gene
flow |
2A.55, 9.07 |
Gene
Ontology classes |
7.12 |
gene promoter
|
9.05, 9.52 |
gene
pyramiding |
6A.18 |
gene
silencing |
1.15 |
genetic traceability |
3A.18 |
genetic
transformation |
3A.10 |
genetic variability |
3A.07 |
genetic variability analysis |
9.27 |
genetic variation |
9.18 |
genetics of taste |
3B.03 |
genetically encoded Ca2+ specific probes |
2C.02 |
Geneticists’
Manifesto |
3B.01 |
genome |
2A.60 |
genome
annotation |
2A.07 |
genome
assembly |
2A.48 |
genome evolution
|
2A.38 |
genome organization |
2A.43 |
genome sequencing |
2A.07, 2A.44 |
genome stability |
9.55 |
genome walking |
2A.32 |
genome-wide association |
6A.27 |
genomic
instability |
6B.08 |
Genomic
interspecies survey |
2A.03 |
genomic
organization |
2A.60 |
genomics |
6A.27 |
genotype
fingerprinting |
5C.09 |
genotyping |
2A.69 |
germin
like protein |
8.07 |
germination |
1.09, 2A.78, 8.22 |
germplasm |
2A.42, 3A.23, 6A.46 |
germplasm
conservation |
9.18 |
GH3
enzymes |
3A.22 |
gibberellic
acid |
6A.43 |
gibberellin |
6A.43 |
gibberellin
biosynthesis |
6A.36 |
gibberellins response |
5B.02 |
global DNA methylation |
1.05 |
Globosa
|
6A.31 |
glucose |
5A.05 |
glucosinolate |
7.25 |
glutamine sinthetase |
2C.15 |
glutaredoxin |
9.38 |
glutathione
|
8.25 |
glutathione S-transferase |
2A.26, 8.03 |
glutathione
transferase |
6A.34 |
glutathionylation
|
9.38 |
gluten
proteins |
2B.03 |
glycine rich-protein 3 |
7.36 |
glycoalkaloids |
8.31 |
grain protein
content |
6A.10 |
grain
yield |
6A.14 |
grape |
2A.12, 2A.37, 3A.02, 3A.19 |
grapevine |
2A.38, 3A.10 |
green coffee
|
8.22 |
green
microalgae |
5C.02 |
green
tissues |
8.23 |
growth |
1.09 |
guard
cell |
5B.03, 4.14 |
GUS |
4.14 |
gut
microbial flora |
7.26 |
GxE interaction |
9.23 |
GxS interaction
|
6A.39 |
H
|
|
H+-ATPase |
2C.12 |
hand
grip |
9.47 |
haplotype |
2A.12 |
haplotype
analysis |
7.15 |
haplotype
diversity |
2A.07 |
HD-Zip |
2A.51 |
heat
dissipation |
1.15 |
heat
stress |
2A.72, 6A.30 |
heavy
metal |
6A.35, 4.10 |
Helianthus annuus
|
6A.03, 2A.41 |
Helianthus spp. |
9.13 |
heme
lyase |
6B.04 |
herbicide
tolerance |
9.07 |
hereditary
disease |
6B.03 |
heterosis |
6A.25, 9.26 |
High
Resolution Melting |
2A.81, 3A.16
|
high-amylose |
8.10 |
High-Molecular-Weight
Glutenin Subunit |
2B.03 |
histone
acetylation |
1.07, 1.12, 9.55 |
histone
variants |
5A.04 |
history of genetics |
3C.03 |
HIV
infection |
6B.07 |
holocentric
chromosomes |
2A.63 |
homogalacturonan |
7.20 |
Hordeum
vulgare |
6A.22 |
hordoindolines |
9.04 |
hormonal
crosstalk |
7.01 |
hormones |
3A.22 |
Horse mitochondrial genome |
5A.02 |
horticultural
traits |
6A.33 |
host
genetic factors |
6B.07 |
HPV
vaccination |
9.31 |
HRM |
8.33, 9.01 |
HSP
18.2 promoter |
6A.30 |
human
demography |
3B.02 |
human
genome |
2A.65 |
hydroperoxide
stereochemistry |
8.13 |
hydroponic
colture |
5C.11 |
hydroxylase3 |
8.09 |
hydroxyphenylpyruvate
reductase (HPPR) gene |
8.24 |
Hypersensitive
Response (HR) |
7.35, 7.38, 7.40 |
hypogeous organism
|
2A.66 |
I
|
|
Illumina
assay |
6A.11 |
Illumina
GoldenGate assay |
2A.69 |
immune
response |
4.13 |
immunity |
7.36 |
immuno-markers |
6B.07 |
immunotherapy |
8.16 |
in
situ hybridization |
2A.65 |
in
vitro propagation |
2A.18 |
inbred
lines |
8.09 |
indel |
2A.49 |
inflorescence
|
6A.43 |
intellectual
disability |
6B.01 |
intercropping |
6A.46 |
international
scientific cooperation |
3C.01 |
inter-organelle
connections |
2B.04 |
interphase
nuclei |
2A.65 |
interspecific
hybrid verification |
9.13 |
intraindividual
chromosomal instability |
2A.63 |
introgression
lines |
3A.01,
4.11, 5C.10 |
intron
loss |
2A.28 |
ionic
effect |
2C.07, 2C.14 |
ionome |
4.11 |
ions |
8.17 |
IQ
debate |
3B.01 |
Iranian
population |
9.56 |
iron
chlorosis |
3A.04 |
ISSR |
2A.42 |
Italian
rice cultivars |
7.39 |
ITS |
9.13 |
ITS
sequencing |
9.39 |
J |
|
Jatropha curcas
|
5C.06 |
Jerusalem artichoke |
6A.37, 6A.38 |
juvanility |
3A.03 |
K
|
|
K. x houghtonii |
2A.31 |
K+
channel |
2C.05 |
KEGG
pathways |
7.12 |
kernel
proteome |
2A.83 |
kernel
texture |
9.04 |
kinase-associated
protein phosphatase |
7.36 |
kinetochore |
1.04 |
L
|
|
laccase |
5C.02 |
lacking
haemolytic activity (LHA) |
2A.24 |
Lactuca |
9.14 |
lamb’s
lettuce |
8.23 |
lamins |
2A.11 |
LAR |
2A.20 |
larval
development |
7.31 |
laser
capture microdissection |
3A.08 |
Laser
Micro Dissection (LMD) |
6A.05 |
lateral
roots |
7.01 |
LC-ESI-QTOF-MS/MS |
2A.21 |
leaf
development |
2A.25, 2A.51 |
leaf
hydraulic conductance |
2C.06 |
leaf rust |
2A.17, 7.16 |
Leaf rust (Puccinia triticina Eriks.) |
6A.12 |
leaf
stripe |
7.15 |
Lesion
Mimic Mutant (LMM) |
7.35 |
light
and temperature changes |
8.02 |
light
harvesting protein |
2A.32 |
light
responses |
2A.66 |
light
stress |
2A.67 |
linkage
disequilibrium |
2A.79, 9.29 |
linkage
map |
2A.17 |
linkage
mapping |
6A.11 |
lipase |
8.22 |
lipid |
5C.04, 8.22 |
lipoxygenases |
8.13 |
LMW-GS |
2A.82 |
local genotypes |
9.42 |
longevity |
8.01, 9.47, 9.49 |
Lotus
corniculatus |
2A.20 |
Lotus
japonicus |
9.22 |
low
and high amylose |
5B.04 |
low
input |
9.15 |
low
phytic acid |
8.04 |
LOX |
6A.09 |
lpa280-10
mutant |
8.19 |
Lr14 |
6A.12 |
LTR
retrotransposons |
2A.64 |
LTR_STRUC |
2A.64 |
lutein |
8.13 |
lycopene |
8.06 |
Lycopersicon esculentum
genome |
2A.54 |
lysosomal
enzyme |
5C.14 |
M
|
|
M.
truncatula |
2A.25 |
MADS-box
sequences |
3A.24 |
Magnaporthe
oryzae |
7.23 |
maize |
2A.09, 8.17, 8.18 |
major
QTL |
6A.14 |
malate |
3A.02 |
male sterile mutants |
6A.04 |
male
sterility |
6A.31 |
Malus
domestica |
3A.11 |
Malus x
domestica |
3A.20, 3A.21 |
mannosidase |
5C.14 |
mannosidosis |
5C.14 |
MAP
kinases |
7.34 |
MAPK |
7.40, 9.33 |
Maremmano
breed |
2A.61 |
Marker
Assisted Selection |
6A.01, 6A.18, 7.04, 8.33 |
mass
spectrometry |
7.37, 8.12, 9.35, 9.36 |
MAT1A
gene |
1.05 |
mating
type |
2A.23 |
maturation
process |
2A.82 |
Medicago sativa |
9.03, 9.23 |
Medicago
truncatula |
2A.24, 2A.26, 6A.44, 7.01, 7.05, 7.08, 7.42 |
Mediterranean
pines |
2A.10 |
meiosis |
5A.03, 9.54 |
melanoma |
6B.06 |
membrane
potential |
2C.05 |
membrane proteins |
2B.05 |
Mentha aquatica |
7.26 |
Mentha
species and hybrids |
2A.16 |
mesophyll
cells |
9.09 |
metabolic
flux |
8.07 |
metabolic
modelling |
4.01 |
metabolic
pathways |
9.49 |
metabolism |
2A.58, 8.25 |
metabolite
profiling |
3A.13 |
metabolomics |
4.03, 7.39 |
metagenomic |
5C.13 |
metallothionein |
6A.35 |
metals |
2C.04 |
metals
accumulation |
4.11 |
methyl
jasmonate |
6A.45 |
methylation |
1.10 |
methyltransferase |
3A.09 |
microarray |
2A.01, 2A.59, 2A.84, 3A.08, 9.43 |
microarray
analysis |
4.12, 4.15, 7.07, 7.17 |
microarrays |
2A.33 |
microRNA |
1.06, 4.08 |
microsatellite
markers |
7.30 |
microsatellites |
2A.75, 9.40, 9.41 |
microsporogenesis |
1.12 |
microtubers |
6A.38 |
mineral
nutrients |
2C.09 |
mineral
nutrition |
2C.03 |
miRNAs |
6B.07, 7.03 |
miRNome |
2A.70 |
mistletoe |
2C.09 |
mitochondria |
2B.04, 4.09, 5A.01, 6B.04, 6B.09 |
mitochondrial
disease |
6B.04, 6B.09 |
mitochondrial
DNA |
9.45 |
mitochondrial genome |
2A.61 |
mitochondrion |
2A.29 |
Mixed
Linear Model |
6A.28 |
mlo resistance |
7.04 |
Moco |
2A.68 |
molecular
cytogenetics |
9.14 |
molecular explanation |
3C.03 |
molecular
fingerprinting |
2A.16 |
molecular
markers |
2A.14, 2A.18, 2A.85, 2A.86, 6A.10, 6A.37, 7.24, 9.20 |
Monilophytes |
2A.15 |
monocotyledons |
7.23 |
monoterpenoids |
7.26 |
morphological
traits |
8.08 |
morphotype |
4.06 |
mouse
gametogenesis |
6B.08 |
MPV17/SYM1 |
5A.01 |
MRP
transporter |
8.04 |
M-SAP |
1.09 |
M-SAP
technique |
1.10 |
mtDNA |
5A.01 |
mtDNA
haplogroups |
5A.02 |
mtDNA
instability |
5A.01 |
mtDNA
variability |
1.05 |
MtN5 |
7.08 |
multi-elements |
9.20 |
multigene
family |
2A.32 |
multilocation trials |
9.23 |
multilocus
longevity |
9.49 |
Multiplex
Real-Time PCR |
8.15 |
mutant |
6A.36 |
mutation |
3A.16 |
MYB |
6A.32 |
Myrtus
communis |
5C.08 |
N
|
|
N
metabolism |
2C.10, 2C.11 |
NAD(P)H oxidase |
9.34 |
NAD+-dependent
deacetylases |
2A.39 |
NADH-GOGAT |
2A.76 |
natural
range |
9.44 |
natural
variation |
3A.15 |
near
isogenic lines |
6A.25 |
nectin |
6B.02 |
network |
6B.01 |
network
analysis |
4.03 |
Neurospora
transformants |
2A.66 |
neutrality
tests |
2A.10 |
Next
Generation Sequencing (NGS) |
2A.12, 2A.36,
2A.44, 2A.47, 2A.49, 2A.59, 3A.01, 6A.11, 6A.15 |
Next-Generation
Sequencing technologies
|
2A.48 |
N-glycoproteome |
2B.05 |
NGS
sequencing |
2A.43 |
Nicotiana
benthamiana |
3A.10,
5C.17 |
Nicotiana
tabacum |
2A.21, 2B.08, 5C.11, 5C.14, 5C.16, 9.03, 9.37 |
nitrate
reductase |
2C.15 |
nitric
oxide |
7.38, 7.41, 9.33, 9.48 |
nitrogen
fixing nodules |
7.01 |
nitrogen
metabolism |
2C.15 |
nodal
explants |
6A.38 |
normalized
library |
2A.59 |
NOS-1 |
9.48 |
nuclear
DNA |
2A.85 |
nuclear
transformation |
2B.11 |
nucleotide
diversity |
9.17, 9.29 |
nutraceutical |
8.24 |
nutritional
stress response |
9.50 |
nutritional value
|
8.28 |
O
|
|
OeSLG
and OeSCR |
3A.25 |
OeSRK |
3A.25 |
Oidium
neolycopersici |
7.13 |
oil
DNA |
9.21 |
Olea europaea |
3A.12, 3A.15, 3A.16, 3A.23, 3A.24, 3A.25 |
oleanolic
acid |
2A.24 |
oligogalacturonides |
7.14 |
olive
oil |
8.20 |
omega 3 fatty acid
desaturase
|
3A.15
|
Opaque-2 |
4.12 |
Opaque-6 |
4.15 |
Opaque-7 |
4.12 |
OPPP |
6A.42 |
Orchidaceae |
2A.57 |
organelle fission |
2B.04 |
organic
agriculture |
9.15 |
organic farming
|
9.23 |
origin
of Equus caballus |
5A.02 |
Oryza
sativa |
6A.28 |
osmotic
stress |
6A.44 |
oxalate
oxidase |
8.07 |
oxidation |
9.38 |
oxidative
stress |
2B.06, 2C.04, 6A.40, 7.33 |
ozone |
9.33, 9.34 |
ozone-responsive
genes |
9.43 |
P |
|
p53
family |
2A.58 |
P5C |
6A.41 |
P63 |
2A.08, 6B.03 |
paleopolyploidy |
2A.38 |
paralogs |
2A.06 |
pathogenesis |
7.03 |
pathogenicity |
7.09 |
PCA |
4.11 |
PCR |
8.09 |
PCR-based
markers |
2A.53 |
PCR-RFLP |
2A.16 |
PDR
gene family |
3A.14 |
peach |
7.03 |
pectic
enzymes |
7.10 |
pectin
|
7.02 |
pectin methyl esterase inhibitor |
7.22 |
pectin
methylesterase |
7.02 |
peeled
tomato |
8.29 |
PEP
carboxykinase |
3A.02 |
peroxidases |
8.27 |
peroxisomes |
2B.04 |
peroxynitrite |
7.40 |
Petunia |
2A.37 |
Petunia hybrida |
2A.19, 3A.09 |
PFF |
2A.77 |
PGIP |
7.18, 7.21 |
pH |
9.19 |
pharmaceuticals |
8.03 |
phaseolin |
2B.08 |
Phaseolus
vulgaris |
7.30, 9.17, 9.29 |
phenolic
biodiversity |
8.14 |
phenolics |
8.32 |
phenological
stages |
8.31 |
phenology |
3A.05 |
phenotypic plasticity
|
2A.05, 6A.39 |
pheromones |
2A.23 |
phloem
structure |
2C.09 |
phosphate
uptake |
2C.03 |
phospholipase
A2 |
6A.08 |
photo-oxidative
damage |
6A.44 |
photoprotection |
1.15 |
photoreceptors |
2A.27 |
photosynthesis
|
2C.04 |
Photosystem
II core complex |
9.37 |
phylogenesis |
4.05 |
phylogenetic
analysis |
2A.61 |
phylogensis |
9.52 |
physic
nut |
6A.46 |
phytic
acid |
8.17, 8.19 |
phytochrome |
4.04 |
phytoene
synthase |
2B.11 |
phytopatogenic fungi
|
7.10 |
Phytoptus
avellanae (Nalepa) |
3A.06 |
phytoremediation |
2A.50, 2B.09, 4.10 |
PI3K
signaling |
2A.08 |
pig |
9.46 |
pigmented
wheat |
8.14 |
pigments |
8.02 |
PIN
auxin efflux carriers |
6A.24 |
Pinus
sylvestris |
9.44 |
piRNAs
pathways |
2A.56 |
plant
adaptation |
2A.32 |
plant
architecture |
2A.04 |
plant
branching |
9.22 |
plant
breeding |
6A.18 |
plant
cell cultures |
5C.06 |
plant
cell wall |
7.10, 7.14 |
plant
defence |
7.14 |
plant
development |
2A.09 |
plant
disease |
7.22 |
plant
genetic resources |
9.16 |
plant
growth |
5B.02 |
plant
miRNAs |
2A.33 |
plant
mitochondria
|
2A.15, 2C.02 |
plant
proteomics |
2B.09 |
plant
resistance |
7.02 |
plant
signaling |
7.41 |
plant-insect
interactions |
2A.84 |
plant-microbe
interactions |
7.05 |
plants |
9.37 |
plasma
membrane |
9.32 |
plastics
|
5C.01 |
Plastidic
glucose-6-phosphate dehydrogenase |
6A.42 |
plastids
differentiation |
1.15 |
Platanus
acerifolia |
7.11 |
PLMVd |
7.03 |
PMEI |
7.18 |
PMF |
2A.77 |
Polar
Auxin Transport |
6A.24 |
pollen |
4.14, 9.34 |
polyamine
oxidase |
4.14 |
Polygalacturonase |
7.20, 7.21 |
Polygalacturonase
inhibitor protein |
7.22 |
polyhydroxyalkanoate |
5C.01 |
polymers |
5C.01 |
polymorphism |
8.11 |
polyphenol
oxidase activity |
6A.19 |
polyphenols |
8.34 |
polyploidization
|
9.11, 9.24 |
polyploydy |
9.28 |
polysomal
profiling |
6B.06 |
poplar |
2A.47, 2B.09 |
poplar
clones |
9.43 |
population
genetics |
2A.22, 3C.01, 9.44 |
population
structure |
2A.79 |
population studies |
3B.03 |
Populus
deltoides |
2A.46 |
Populus
nigra |
2A.46, 2A.48, 6A.39 |
Populus
trichocarpa |
2A.46, 2A.48, 6A.42 |
positional
cloning |
6A.22 |
postharvest
storage |
8.27 |
potassium channel
|
2B.10 |
potato |
2A.85 |
potato
virus X |
5C.15 |
powdery
mildew |
2A.01 |
PP2A |
9.53 |
PR-10 |
3A.21 |
prebiotics |
8.01 |
proanthocyanidin |
2A.21, 2A.20 |
programmed
cell death |
7.06, 7.33 |
programmed
cell death under biotic stress conditions |
6A.41 |
proline |
6A.40 |
proline
dehydrogenase/proline oxidase |
2A.58 |
proline
metabolism |
6A.41 |
propagation |
6A.46 |
protein
bodies |
2B.07 |
protein
folding |
9.05 |
protein
modeling |
2A.62 |
protein
stability |
2B.08 |
protein
turnover |
2B.10 |
protein-protein interactions
|
2C.12, 5B.01 |
proteins |
8.17 |
proteomic |
2A.82, 2A.83, 7.29, 8.05, 8.10, 9.35 |
protoplast |
9.09, 9.10 |
Prunus
persica |
2A.49, 3A.01, 3A.03, 3A.11, 3A.13 |
Prunus/Anemone rust |
7.12 |
Przewalskii
horse |
5A.02 |
Pseudomonas
putida |
4.10 |
Pseudomonas syringae
pv. tomato (Pst) |
8.33 |
Pseudoplatanus |
7.33 |
Pseudotomentella |
9.39 |
Psy gene family |
2A.28 |
PTGS |
3A.10 |
purification |
5C.16 |
Pyrenochaeta
lycopersici |
7.09 |
pyrosequencing
|
2A.31 |
Q |
|
qPCR |
3A.21, 6A.26 |
QTL |
2A.17, 2A.53, 5C.12, 6A.20, 6A.25, 6A.33, 6A.39 |
QTL
analysis |
2A.35, 6A.23, 7.16 |
QTL cloning
|
6A.14 |
QTL
mapping
|
6A.01, 6A.13 |
quantitative resistance |
2A.17 |
Quercus
frainetto |
2A.55 |
Quercus
petraea |
2A.55 |
Quercus
pubescens |
2A.55 |
R |
|
R/FR |
4.04 |
r1
gene |
6A.23 |
R2R3
MYB |
2A.40 |
racial
science |
3B.01 |
radiobiology |
3C.01 |
ragweed |
9.34 |
Random
Forest |
6A.28 |
RAPD
|
9.08 |
Reactive
Oxygen Species (ROS) |
7.13, 7.39, 7.35 |
Real
Time RT-PCR |
2A.45, 2A.57 |
recombinant
allergens |
8.16 |
Recombinant
Inbred Line |
6A.07, 6A.09 |
red
rice |
9.07 |
redox |
5B.03, 9.32 |
redox
sensor |
9.38 |
regulation |
2A.29 |
regulatory
design |
4.01 |
regulatory
networks |
4.08 |
Regulatory
Region |
2A.03 |
repeated
sequences |
2A.44, 2A.47 |
replication |
2A.11 |
reproduction |
1.13 |
reproductive
organs |
2A.41 |
rescue of mtDNA mutability
|
6B.10 |
resistance
gene |
1.11, 2A.38, 7.15, 7.16 |
resistance
to mites |
3A.06 |
responsive
elements |
2A.58 |
Restriction-site
Associated DNA (RAD) |
6A.33 |
resveratrol |
3A.14 |
retrotransposons |
2A.44, 2A.47, 2A.67 |
Rev1 |
6B.10 |
Rev3
mutagenesis |
6B.10 |
reverse
genetic |
6A.03, 8.06 |
reversible glucan
phosphorylation |
5B.01 |
RFLP |
2A.73 |
R-genes
|
7.12 |
rhizobia |
7.08 |
rhizosecretion |
5C.11 |
rhododendron |
9.19 |
Ribosome
Inactivating Proteins |
9.31 |
rice |
6A.27, 7.23 |
rice
germplasm |
6A.40 |
ripening |
4.03 |
ripetitive
sequences |
2A.43 |
RNAi |
2A.20 |
RNA-seq |
2A.13, 3A.12 |
ROC |
2A.34 |
root
damage |
7.31 |
root meristem mainteinance
|
9.30 |
root
morphology |
6A.07 |
roots |
4.14 |
ROS |
1.05, 8.01, 8.25, 9.34 |
rosaceae |
3A.01 |
rosmarinic
acid |
8.24 |
R-protein |
2A.54 |
rRNA
genes |
9.14 |
rubber |
5C.01 |
S |
|
saccharification |
5C.03 |
Saccharomyces
cerevisiae |
1.07, 4.09, 6B.09, 9.50 |
SAGA
complex |
1.04 |
Salicaceae |
2A.50 |
salinity
|
1.09, 6A.30 |
salt
stress |
1.06, 2A.67, 2A.78 |
salt
stress tolerance |
2A.81, 6A.40 |
salt
tolerance |
2C.14 |
Salvia officinalis |
8.24 |
San
Marzano
|
8.29
|
saponin |
2A.24 |
saporin |
9.31 |
scab |
6A.21 |
scarecrow |
9.30 |
Scenedesmus sp. |
8.02 |
scientific
racism |
3B.01 |
screening |
6A.40 |
secondary
metabolites |
2A.21 |
Seed
Storage Proteins |
2B.03 |
SEEDSTIK-like gene |
2A.57 |
segregation
distortion |
2A.80 |
selection |
9.29 |
self-incompatibility |
3A.08, 9.40 |
semi-quantitative
RT-PCR |
8.26 |
sense
and antisense RNA |
1.14 |
sensitivity |
2A.34 |
Septoria
tritici blotch (STB) |
6A.16 |
sequencing |
2A.14 |
sesquiterpene
lactones |
8.21 |
sex chromosome |
2A.14 |
sexual
polyploidization
|
9.28 |
Sgp-1 |
8.11 |
Shannon
entropy |
9.52 |
shortened
SSR |
8.20 |
Sicilian
Helichrysum |
9.18 |
signal
transduction |
2A.23 |
signalling |
2C.10, 2C.11 |
signalling
pathway |
7.35 |
significantly
differentially expressed genes |
2A.34 |
silicon |
2C.13 |
Silk Road |
3B.03 |
Simple
Sequence Repeat |
2A.42, 6A.09, 9.42 |
Single Nucleotide Polymorphisms (SNP) |
2A.50, 6A.11 |
Sinorhizobium
meliloti |
7.37 |
Sir2 |
1.07 |
siRNA |
1.11, 7.03 |
sirtuin
|
2A.39 |
skeletal
muscle |
2A.13 |
S-nitrosylation |
7.38 |
SNP |
2A.12, 2A.49, 2A.69, 3A.13, 4.06, 6A.25, 6A.28, 9.01, 9.56 |
sodium
bicarbonate |
9.19 |
sodium
dodecyl sulfate-polyacrylamide gel electrophoresis |
7.32 |
Solanaceae |
1.15 |
Solanum spp.
|
2A.86, 6A.32 |
Solanum lycopersicum
L. |
4.11, 6A.29, 6A.31, 8.06, 8.28, 8.30, 8.33 |
Solanum pennellii
introgression lines (ILs) |
6A.48, 8.32 |
Solanum tuberosum |
2A.07 |
somatic mutation |
2A.62 |
specificity |
2A.34 |
spermatogenesis |
5A.03 |
sphingolipid metabolism
genes |
9.50 |
Spinacia oleracea |
2A.32 |
sporophytic
self-incompatibility |
3A.25 |
sprouting
|
6A.38 |
Sr isotope ratio
|
9.20 |
SRT1 |
2A.39 |
SRT2 |
2A.39 |
SSR |
2A.22, 3A.17, 3A.20, 8.08, 8.29, 8.30 |
SSR
markers |
6A.16, 8.20, 9.12, 9.26 |
SSR-microsatellite |
9.08 |
SSRs |
6A.13 |
starch |
2A.74, 5B.01, 5B.03, 5B.04, 8.10, 8.11, 8.17 |
starch branching enzyme
|
2A.74 |
starch
metabolism |
5B.02 |
stem
cell niche |
9.30 |
sterile
spikelets |
6A.15 |
stilbene
synthases |
2A.40 |
stomata
opening |
5B.03 |
storage |
8.22 |
strategy
development |
9.16 |
stress
conditions |
9.22 |
stress
response |
2C.11, 3A.14, 6A.27 |
strigolactones |
9.22 |
STRs |
9.56 |
substrate range
|
3A.11 |
succinate
dehydrogenase |
6B.09 |
sugar
metabolism |
5C.10 |
sulfate
assimilation |
9.06 |
sulfur
metabolism |
9.06 |
Sunn
pest |
7.32 |
supply-demand
analysis |
4.01 |
SVP |
2A.30 |
SYBR
Green |
8.15 |
symbiosis |
2C.10, 7.08, 7.28 |
symbiotic
nodule formation |
7.42 |
synonymies and homonymies |
9.42 |
synteny |
2A.28, 2A.71, 6A.15, 6A.12 |
systemin |
2A.84 |
Systems
Biology |
4.13 |
T |
|
T1D |
5C.17 |
T1DM |
5C.16 |
TAIL-PCR |
9.25 |
Ta-siRNAs |
2A.09 |
T-cell
receptor |
2A.60 |
T-DNA |
9.25 |
tellurite |
4.09 |
telomerase |
2A.63 |
telomere |
2A.11, 2A.63 |
TERMINAL
FLOWER1 gene |
9.03 |
thiols |
8.25 |
thousand
kernel weight |
6A.15 |
tiling
array |
2A.27 |
tillering |
6A.22 |
TILLING
|
6A.01, 6A.17, 9.01 |
tobacco |
5C.02 |
tobacco
BY-2 cells |
4.07 |
tocopherols |
8.27 |
tomato |
2A.27,
2C.13, 2C.14, 3A.02, 4.03, 5C.10, 6A.31, 7.28, 8.30 |
tomato fruit quality
|
8.32 |
tomato
plants |
7.13 |
tomato
proline transporter (LeProT1) |
6A.30 |
tomato
wild species |
2A.53 |
Tomentella |
9.39 |
tonoplast
biogenesis |
2B.05 |
totipotent
cDNA |
2A.01 |
traceability |
8.29, 9.20 |
transcription factor
|
2A.04, 2A.06, 2A.25, 2A.37, 4.08, 6A.32, 7.39, 7.42 |
transcriptome |
2A.05, 2A.36, 3A.13, 9.43 |
transcriptomics |
2B.07, 8.32 |
transformation |
3A.19, 5C.06 |
transgene
copy number |
2A.45 |
transgenic
plant |
6A.34, 7.18, 7.19 |
transgenic
poplar |
2A.45, 6A.35 |
transgenic
wheat |
8.05, 8.10 |
transient
expression
|
5C.17 |
translation
efficiency |
6B.06 |
transmission
electronic microscopy |
4.09 |
transport |
2C.10 |
transposable
elements |
1.02 |
transposon |
2A.41, 2A.56 |
TRAP
molecular markers |
9.27 |
treatment |
8.23 |
TRG
and TRD loci |
2A.62 |
TRG
locus |
2A.60 |
Trichoderma-plant interaction |
2A.52 |
tristeza |
1.11 |
TriticeaeGenome |
6A.22 |
Triticum |
9.05, 9.06 |
Triticum
aestivum |
2B.03, 6A.21, 7.32, 9.02 |
Triticum
durum |
2A.67, 2A.72, 2B.03, 6A.21, 7.16, 8.08 |
Triticum
durum Desf. |
6A.08, 6A.11, 6A.16 |
truffle |
2A.22, 2A.23, 9.35 |
tuber |
2A.22, 2A.23 |
Tuber aestivum
|
9.39 |
tuber
biology |
2A.07 |
two-dimensional
electrophoresis |
9.35, 9.36 |
two-dimensional
gel electrophoresis |
7.37 |
two-dimensional
liquid chromatography
|
2B.09 |
TYLCSV |
7.28 |
tyrosine
nitration |
7.40 |
U |
|
ultrastructure
|
8.02 |
uncoupling
proteins |
9.47 |
UNESCO
Statements on Race |
3B.01 |
unfolded
protein response |
2B.07 |
Uniculme4 |
6A.22 |
urea |
2C.15 |
V |
|
vacuole
biogenesis |
2B.10 |
varietal
characterization |
3A.07 |
vein
density |
2C.06 |
vessel
grouping |
2C.07 |
Vicia faba |
9.23 |
Vicia sativa |
9.23 |
VIGS |
8.03, 8.06 |
virus resistance
|
3A.10 |
Vitamin B6 |
5A.05 |
vitamin C
|
8.07 |
Vitis |
3A.18 |
Vitis vinifera
|
2A.05, 2A.33, 2A.34, 2A.35, 2A.38, 2A.39, 3A.09, 3A.14, 3A.22, 6A.43 |
Vitis vinifera
(“Prosecco”) |
7.27 |
Vitis vinifera cv.
Corvina |
2A.36 |
Vitis vinifera L. |
6A.05, 9.42 |
viviparous |
2A.68 |
VOCs
analysis |
7.26 |
VvMYB5a |
3A.19 |
VvMYB5b |
3A.19 |
W |
|
wall
associated kinase 1 |
7.36 |
water
availability |
2C.06, 2C.07 |
water
deficit |
6A.29 |
water
deficit tolerance |
6A.48 |
western
blot |
7.32 |
wheat |
2A.28, 2A.69, 2A.70, 2A.71, 2A.74, 2A.76, 2A.82, 2A.83, 5B.04, 6A.17, 6A.20, 7.18, 7.19, 7.21, 8.11 |
wheat
allergy |
8.05 |
wheat
collection |
6A.19 |
wheat
development |
7.20 |
wheat
kernel proteins |
8.05 |
wheat
quality |
9.05, 9.06 |
white
poplar |
6A.35 |
Whole Genome Duplication (WGD) |
2A.06 |
whole-
genome sequence |
3B.02 |
wild
potato species |
2A.86 |
wounding stress
|
6A.45 |
WRKY genes |
7.23 |
X |
|
X-chromosome
|
2A.02 |
xylanase
inhibitor protein |
7.19 |
xylanases |
7.19 |
xylanases inhibitor |
7.22 |
Y |
Y-chromosome
|
9.56 |
yeast
model |
5A.01, 6B.04, 6B.09 |
yeast
strains |
4.05 |
yield |
6A.13, 6A.20 |
Z |
|
Zea mays L. |
1.02, 1.03, 1.08, 1.14, 2A.73, 2C.15, 4.12, 4.15, 6A.23, 6A.24, 6A.26, 7.07, 7.24, 7.31, 8.09, 8.16 |
zein |
2A.73, 2B.07 |
|