2 g mixograph
|
4.03
|
|
(poly)phenolic compounds |
D.24
|
|
alpha-tocopherol
|
A.03
|
|
|
|
|
A
|
|
|
ABC
transporter |
D.54
|
|
abiotic stress
|
5.14
|
|
abortion
|
F.28
|
|
abscission
|
E.17
|
|
access to market
|
H.09
|
|
ACP
|
C.47
|
|
actin
|
C.47
|
|
Actinidia deliciosa
|
E.01
|
|
actinomorphic flowers
|
C.36
|
|
activation tagging
|
B.14
|
|
acyltransferase isolation
|
F.22
|
|
adaptation
|
C.63
|
|
adaptive traits
|
C.08
|
|
additive
main effects and multiplicative interactions (AMMI) analysis
|
D.01
|
|
ADH1 gene
|
2.09
|
|
AFLP
|
B.34
, C.25
, C.33
, C.40
, E.12
, G.04
|
|
AFLP analysis
|
H.05
|
|
AFLP fingerprinting
|
F.17
|
|
AFLP markers
|
C.38
, C.49
, C.73
|
|
AFLP-TP
|
B.30
, D.48
|
|
Aglianico del Vulture
|
C.41
|
|
Agrobacterium rhizogenes
|
G.02
|
|
Agrobacterium tumefaciens
|
E.02
|
|
Agroinfiltration
|
A.06
|
|
aintegumenta
|
C.35
|
|
air pollution
|
D.05
|
|
alfa-alfa
|
C.35
, D.18
, 5.12
|
|
allele frequencies
|
C.71
|
|
allelic expression
|
C.19
|
|
allilyc alcohol tolerance
|
2.09
|
|
almond
|
D.34
|
|
amino acid
|
5.14
|
|
aminotransferase
|
5.14
|
|
amyloidosis
|
A.08
|
|
amyloplasts
|
5.15
|
|
amylose
|
F.04
|
|
ancient grape germplasm
|
C.41
|
|
androgenesis
|
E.05
|
|
aneuplod
|
C.24
|
|
annotation
|
5.02
|
|
annual medics
|
B.38
|
|
antagonistic fungi
|
D.42
|
|
anthers
|
E.04
|
|
anthocyanin
|
4.05
, D.22
|
|
anthocyanin metabolism
|
C.42
|
|
antibiotics
|
D.28
|
|
anticance
|
E.06
|
|
anticholesterolemic effect
|
B.08
|
|
antifungal activity
|
B.08
|
|
antigens
|
A.04
|
|
antinutritional compounds
|
F.10
|
|
antioxidant gene
|
D.23
|
|
antioxidants
|
B.32
, E.02
, F.12
|
Antonovka
|
E.19
|
|
antropic stress
|
D.07
|
|
APA locus
|
B.13
|
|
apolipoprotein
|
A.08
|
|
apomixis
|
B.15
|
|
apple
|
E.16
|
|
apple breeding
|
E.20
|
|
apricot
|
E.15
|
|
APX
|
D.23
|
|
aquaporins
|
D.21
|
|
Arabidopsis
|
B.05
, D.52
|
|
Arabidopsis thaliana
|
B.01
, B.18
, B.46
, D.08
, D.10
|
|
aroma
|
F.24
|
|
arrays
|
4.09
|
|
AsA
|
F.13
|
|
ascorbate
|
F.12
|
|
asexual reproduction
|
G.03
|
|
assay for genetic modification
|
B.44
|
|
association mapping
|
2.06
, C.04
,
C.66
, D.13
|
|
association study
|
C.63
|
|
Asteraceae
|
B.29
, B.35
|
|
ateral roots
|
D.54
|
ATHB-2
|
D.08
|
|
AtPCS1
|
L.01
|
|
aux1 mutant
|
B.01
|
|
auxin
|
B.05
, B.18
, D.08
, D.54
|
|
avrPto
|
D.26
|
|
Azospirillum
|
D.43
|
|
|
|
|
|
|
|
B
|
|
|
b-32
|
D.38
, D.39
|
|
BAC
|
B.11
|
|
BAC library
|
2.08
, B.13
,
B.34
, B.36
|
|
bacteria
|
D.26
, D.27
|
|
bar
|
H.01
|
|
barley
|
5.04
, C.12
,
C.13
, C.14
, D.01
, 5.14
|
|
BCA
|
D.43
|
|
berry colour
|
C.42
|
|
berry development
|
B.33
|
|
berry skin
|
E.03
|
|
beta-carotene
|
F.14
, F.18
|
|
beta-galactosidase
|
1.10
|
|
biocontrol
|
1.03
|
|
biocontrol genes
|
D.33
|
|
biocontrol inducers
|
D.33
|
|
biodiversity
|
C.34
, C.69
, D.44
, G.01
, G.04
|
|
bioindicator
|
D.07
, D.14
|
|
bioinformatics
|
C.53
|
|
biopesticides
|
D.28
|
|
bioremediation
|
L.03
|
|
biosafety
|
5.01
|
|
biosynthetic genes
|
A.03
|
|
biotechnology
|
5.01
, H.10
|
|
Bipolaris sorokiniana
|
D.46
|
|
blue lupine
|
C.30
|
bound water
|
D.20
|
|
bovine
|
C.71
|
|
brachytic
|
C.16
|
|
branched-chain
|
5.14
|
|
breba
|
E.07
|
|
breeding
|
C.30
, C.59
, F.05
|
|
breeding strategies
|
C.57
|
|
|
|
|
|
|
|
C
|
|
|
C4-3
|
B.18
|
|
candidate gene
|
4.02
, 4.10
, B.17
,
C.11
, C.12
, C.52
|
CAPS markers
|
5.16
|
carcass and meat quality
traits
|
C.70
|
|
carotenoids
|
4.04
, F.16
|
|
case study
|
H.10
|
|
casein
|
4.06
, C.69
|
cattle
|
2.04
, F.27
|
|
Cbf
|
D.15
|
|
Cd accumulation
|
L.01
|
|
cDNA microarray
|
D.19
, E.20
|
|
cDNA-AFLP
|
D.05
, E.03
, E.15
|
|
cell cultures
|
4.09
, D.25
|
|
cell cycle
|
B.02
|
|
cellulose
|
B.48
|
|
cerato-ulmin
|
D.37
|
Chamelea gallina
|
5.16
|
|
chemical inducers of systemic acquired resistance
|
D.49
|
|
chemical mutagenesis
|
B.42
|
|
chemical thinners
|
E.17
|
|
Chicorium intybus
|
H.08
|
|
chlorogenic acid
|
4.07
|
|
chloroplast
|
5.02
, H.07
,
5.08
, 5.12
|
|
chloroplast development
|
5.04
|
|
chromatin
|
B.24
|
|
chromium
|
L.02
|
|
chromosomal localization
|
B.28
|
|
chromosome association
|
C.50
|
|
chromosome fragility
|
F.28
|
|
chromosome identification
|
C.56
|
|
chromosome number
|
C.23
|
|
chrysanthemum
spray
|
D.25
|
|
Chs
|
C.46
|
|
cis-variation
|
C.19
|
|
Citrus
|
C.50
|
|
Citrus sinensis L.
|
4.05
|
|
Citrus spp
|
E.01
|
|
Citrus
rootstock
|
2.03
|
|
class I knotted-like gene
|
E.11
|
|
class II knotted-like gene
|
E.10
|
|
clean gene
|
H.01
|
|
clonal identification
|
C.65
|
|
cluster analysis
|
4.07
, C.38
,
C.73
|
|
CMS
|
F.20
, F.21
|
|
cold stress
|
D.22
, E.22
|
|
cold tolerance
|
D.16
|
|
combining ability
|
F.20
|
|
combinino ability
|
F.21
|
|
commercial release
|
H.09
|
|
common bean
|
C.31
, C.32
, F.10
|
|
common wheat
|
D.40
, F.05
|
|
comparative gene expression profiling
|
B.32
|
|
comparison test
|
C.54
|
|
complex traits
|
6.02
|
|
computer technology
|
2.02
|
|
conifers
|
C.63
|
|
conservation
|
C.67
|
|
containment
|
5.01
|
|
conventional farming
|
F.19
|
|
core collection
|
C.33
, C.38
|
|
Cre/loxP
|
H.14
|
|
cross-complementation
|
B.02
|
|
crude protein extracts
|
B.46
|
|
cryptochrome
|
F.15
|
|
cucumber mosaic virus (CMV)
|
D.29
|
|
cucumber mosaic virus satellite
RNA
|
1.09
|
|
Cucumis melo L.
|
C.25
|
|
cultivar fingerprint
|
E.09
|
|
cultivar identification
|
E.12
|
|
cultivar protection
|
C.26
|
|
cuticular waxes
|
D.06
|
|
cycloartenol synthase
|
B.08
|
|
Cynara cardunculus
|
F.22
|
|
cypress
|
C.62
|
|
cytochrome b5
|
A.04
|
|
cytogenetics markers
|
C.56
|
|
cytokinesis
|
C.58
|
|
cytomixis
|
C.50
|
|
|
|
|
|
|
|
D
|
|
|
database
|
C.22
|
|
DD-cDNA-AFLP
|
L.02
|
|
ddNTPs
|
4.06
|
|
DDRT-PCR
|
5.14
|
|
decision-making process
|
H.02
|
|
DED
|
D.37
|
|
defence gene
|
1.02
, D.04
,
D.46
|
|
dehydration responsive
factors
|
D.09
|
|
desaturase
|
5.03
|
|
descriptors
|
C.40
|
|
deseases
|
C.07
|
|
development
|
B.01
, B.06
, C.12
|
|
DH
|
F.08
|
|
Diabetes Mellitus (T1DM)
|
A.07
|
|
differential expression
|
B.19
, B.30
|
|
differentially expressed genes
|
1.04
|
|
dioxin
|
F.28
|
|
Diplodia mutila
|
D.42
|
|
disease resistance
|
1.09
|
|
disease resistance (R)
genes
|
D.36
|
|
disulphide bonds
|
F.02
|
|
DNA
|
5.05
, C.45
|
|
DNA and RNA fingerprinting
|
D.36
|
|
DNA expression
|
F.25
|
|
DNA methylation
|
D.07
|
|
DNA polymorphism
|
C.71
|
|
DNA transposon
|
C.20
|
|
DNA-based sensors
|
H.06
|
|
domestication
|
C.31
|
|
domestication syndrome
|
B.09
|
|
dominance
|
B.22
|
|
DON
|
F.06
|
|
double-headed proteinase
inhibitors
|
F.10
|
|
drought
|
C.08
, C.10
, D.12
, D.23
|
|
drought tolerance
|
C.05
, D.10
, D.16
, D.20
|
|
DTT
|
E.02
|
|
durable resistance
|
1.06
|
|
durum wheat
|
B.36
, C.03
, C.05
, C.07
, C.08
, D.09
, D.12
, D.13
, D.17
H.11
|
|
durum wheat (
Triticum durum Desf.)
|
C.04
|
|
durum wheat mitochondria
|
5.17
|
|
|
|
|
|
|
|
E
|
|
|
edible
plants |
G.01
|
|
effector proteins
|
D.27
|
|
electric conductivity
|
D.24
|
|
embryogenesis
|
5.06
|
|
emp4
|
5.07
|
|
endogenous gene
|
H.03
, H.04
|
|
endophytic bacteria
|
D.56
|
|
endopolygalacturonase
|
E.13
, E.14
|
|
Endosperm Balance Number (EBN)
|
C.24
|
|
endosperm development
|
5.07
|
|
endosperm mutants
|
B.45
|
|
enhancer
|
B.43
|
|
epigenetic
|
B.24
|
|
epiphyllous bud
|
G.03
|
|
epiphylly
|
B.12
|
|
Erwinia chrysanthemi
|
D.02
|
|
essential oil
|
D.56
|
|
EST
|
B.31
, C.64
, E.14
|
|
ESTree
db
|
C.52
, C.53
|
|
EST-SSR
|
C.01
, C.09
|
|
ethical and bioethical aspects
|
H.10
|
|
ethylene
|
D.54
, E.14
, E.17
|
|
everlasting flowers
|
G.02
|
|
evolution
|
F.27
|
|
expansin
|
B.06
|
Expressed Sequence Tag (EST)
|
C.52
|
|
expression
|
E.11
|
|
expression analysis
|
B.26
, B.33
|
|
|
|
|
|
|
|
F
|
|
|
Faba
bean |
C.30
|
|
farmer selection
|
C.03
|
|
fat composition
|
4.08
|
|
feed
|
H.03
|
|
fertility
|
C.50
|
|
field testing
|
H.09
|
|
fingerprinting
|
F.26
|
FISH
|
B.47
, C.56
, F.27
|
|
flavohemoglobin
|
D.02
|
|
flavonoids accumulation
|
B.32
|
|
floral mutants
|
C.36
|
|
floral symmetry
|
C.36
|
|
flow cytometry
|
2.11
, C.51
,
E.05
|
|
flower development
|
2.07
, B.27
|
|
fluorescence in situ
hybridization |
B.28
|
|
Focus groups method
|
H.02
|
|
food allergy
|
F.23
|
|
forest trees
|
C.61
|
|
free water
|
D.20
|
|
frost tolerance
|
D.15
|
|
fruit
|
E.15
|
|
fruit development
|
E.20
, F.25
|
|
fruit quality
|
D.04
, E.17
, F.23
|
|
fruit set
|
D.19
|
|
fruit softening
|
E.13
|
|
function by RNA interference
|
E.11
|
|
function map
|
C.11
|
|
functional complementation
|
5.14
|
|
functional genomics
|
B.41
, C.53
, D.11
|
|
functional map
|
C.42
|
|
Fusarium oxysporum f.
sp. melonis
|
D.44
|
|
Fusarium oxysporum f.
sp. melongenae
|
C.28
, C.29
|
|
Fusarium spp
|
D.46
|
|
Fusarium verticillioides
|
D.39
|
Fusarium wilt
|
C.25
|
|
|
|
|
|
|
|
G
|
|
|
gabaculine
|
H.07
|
|
Gallus
gallus
|
2.05
|
|
gametogenesis
|
B.15
|
|
gametophytic factor
|
B.16
, B.17
|
|
GBSS
|
F.05
|
|
GC/MS
|
F.24
|
|
geminivirus
|
1.06
, D.30
|
|
gene expression
|
B.04
, B.22
, B.24
, D.17
, D.19
, D.22
, D.49
, E.15
|
|
gene expression analysis
|
4.09
, B.45
|
|
gene family
|
C.15
|
|
gene flow
|
2.12
, H.08
,
H.15
|
|
gene function
|
B.06
, B.21
|
|
gene isolation
|
4.05
, B.48
|
|
gene prediction
|
B.13
|
|
gene silencing
|
D.32
, F.03
|
|
genetic algorithms
|
6.02
|
|
genetic differentiation
|
C.67
, C.68
|
|
genetic diversity
|
2.03
, 2.06
, C.26
,
C.27
, C.32
, C.63
, E.07
, G.01
|
|
genetic diversity statistics
|
C.38
|
|
genetic engineering
|
D.16
|
|
genetic map
|
B.34
|
|
genetic polymorphism
|
C.41
|
|
genetic resources
|
C.17
, C.44
|
|
genetic traceability
|
2.05
|
|
genetic transformation
|
D.38
, E.21
|
|
genetic variability
|
2.04
, C.68
|
|
genetic variation
|
C.57
, G.04
|
|
Genetically Modified (GM)
|
H.13
|
|
genome
|
B.29
|
|
genome sequencing
|
2.11
|
|
genomic organisation
|
E.10
, E.11
|
|
genomics
|
C.61
|
genotype by environment interaction
(GEI)
|
D.01
|
|
geosmithia
|
D.37
|
|
geranylgeranyl reductase
|
D.04
|
|
germplasm
|
C.27
, C.45
, F.21
|
|
globe artichoke
|
C.39
|
|
glossy genes
|
D.06
|
|
glutathione
|
F.12
|
|
gluten proteins
|
F.07
|
|
glutenin
|
F.03
|
|
glutenin subunit
|
F.02
|
|
GM crop
|
H.15
|
|
GMO
|
H.02
, H.06
, H.09
, H.12
|
|
GMO detection
|
H.04
, H.11
|
|
goat
|
C.69
|
|
GOX gene
|
E.18
|
|
Gr receptor
|
H.05
|
|
grain quality
|
C.07
|
|
grain yield
|
C.02
|
|
grape ripening
|
B.33
|
|
grape transformation
|
E.02
|
|
grapevine
|
4.09
, C.42
,
C.43
|
|
grapevine virus A
|
1.07
|
|
grape-withering
|
B.30
|
|
growth hormone receptor
|
C.71
|
|
growth stage
|
D.12
|
|
GSA-AT
|
H.07
|
|
GSH
|
L.01
|
|
guard cells activity
|
D.10
|
|
GUS expression
|
C.15
|
|
GUS reporter
|
B.04
|
|
|
|
|
|
|
|
H
|
|
|
H+ATPase
|
B.04
|
|
HAP3 transcription factor
|
B.39
|
|
haploid
|
C.24
, E.05
|
|
haplotypes
|
F.08
|
|
hazelnut
|
E.06
|
|
HCT
|
F.22
|
|
heat shock
|
D.18
|
|
heat stress
|
D.19
|
|
heavy metals
|
L.03
|
|
Helianthus
|
B.29
, C.37
|
|
Helianthus annuus
|
C.36
|
|
Helicoverpa zea
|
D.51
|
|
helitron
|
C.20
|
|
heterosis
|
B.22
, C.18
|
|
heterozygosis
|
2.04
|
|
Hibiscus cannabinus
|
B.48
|
|
high light stress
|
5.13
|
|
histone deacetylases
|
B.24
|
|
HIV
|
A.04
, A.06
, 5.10
|
|
HMW DNA
|
B.36
|
|
homeobox genes
|
2.07
|
|
Hordeum vulgare L.
|
2.07
, D.41
|
|
HPLC
|
4.07
, E.06
|
|
HPV
|
5.03
|
|
HR-melting analysis
|
C.48
|
|
hsp101
|
D.17
|
|
HSP70
|
D.18
|
|
Hsp90
|
C.18
|
|
hulless
|
F.08
|
|
human vaccine
|
5.10
|
|
hybrid vigor
|
B.22
|
|
hydric stress
|
D.09
|
|
hydroperoxide lyase lipidi
body
|
D.34
|
|
hydrophobin
|
D.37
|
|
Hypersensitive Response
(HR)
|
D.02
, D.52
|
|
hypoallergenic cultivar
|
F.23
|
|
|
|
|
|
|
|
I
|
|
|
IAA
|
B.37
|
|
image analysis
|
2.02
, C.10
|
|
imidazolinone resistance
|
D.55
|
|
immunolocalization
|
B.02
, E.13
|
|
import
|
5.05
|
|
in vitro regeneration
|
E.21
|
|
inbred line
|
F.20
|
|
incorporation
|
4.03
|
|
inflorescence
|
C.21
|
|
inheritance
|
D.55
|
|
innovative characters
|
C.30
|
|
insect protease
|
D.51
|
|
insertion/deletion mutation
|
2.09
|
|
insertion mutant
|
C.15
|
|
insertional mutagenesis
|
B.43
|
|
instable DNA methylation
of genic regions
|
B.25
|
|
intra-specific variability
|
C.37
|
|
intra-varietal diversity
|
C.49
|
|
introgression
|
H.08
|
|
introgression lines
|
B.47
|
|
intron
|
C.65
|
|
intron-mediated regulation
|
2.07
|
|
IRAP
|
C.37
|
|
iron metabolism
|
5.06
|
|
isogenic line
|
D.47
|
|
ISSR
|
2.03
, C.01
,
C.28
, C.29
|
|
Italian aromatic rice varieties
|
F.09
|
|
|
|
|
|
|
|
J
|
|
|
jasmonic acid
|
A.03
|
|
|
|
|
|
|
|
K
|
|
|
kenaf
|
B.48
|
|
Kentucky bluegrass
|
B.15
, B.23
|
|
K Intron Binding Proteins
(KIBPs)
|
2.07
|
|
Knotted1-related Homeobox
gene
|
B.12
|
|
KNOX
|
B.07
|
|
|
|
|
|
|
|
L
|
|
|
L1
|
5.03
|
|
labels
|
H.02
|
|
laccase
|
L.04
|
|
Lactuca serriola
|
H.08
|
|
landraces
|
C.03
, C.17
|
|
L-ascorbic acid
|
F.13
|
|
LCGreenTMI
|
C.48
|
|
LC-QTOF-MS
|
B.32
|
|
leaf protoplasts
|
F.02
|
|
lectin family
|
B.13
|
|
lectins
|
C.32
|
|
legume
|
B.37
|
|
lemon
|
C.51
|
|
Lens culinaris
|
B.40
, C.34
|
|
Lens culinaris Medik
|
2.02
|
|
lentil
|
C.30
|
|
lepidochronology
|
D.14
|
|
Lesion Mimic Mutant (LMM)
|
D.52
|
|
light harvesting complex
|
5.13
|
|
light response
|
D.06
|
|
lignin
|
B.48
|
|
lilium
|
C.58
|
|
line x tester
|
F.21
|
|
linkage disequilibrium (LD)
|
2.06
, C.04
,
C.06
, C.63
, C.66
|
|
linkage map
|
C.07
|
|
linkage mapping
|
E.19
|
|
Lipid Transfer Protein
|
F.23
|
|
lipoxygenase
|
F.11
|
|
LMW-GS
|
F.07
|
|
local breeds
|
2.05
|
|
local population
|
C.34
|
|
local varieties
|
C.43
|
|
long-SAGE
|
D.30
,
D.31
|
|
low molecular weight glutenin
subunits
|
4.03
|
|
LTR-retrotransposon
|
B.29
, C.37
|
|
LUX primer
|
H.12
|
|
lycopene
|
F.14
|
|
lycopene cyclase
|
F.16
|
|
Lycopersicon spp.
|
1.09
|
|
Lycopersicon esculentum
|
D.35
, F.12
, F.13
|
|
Lycopersicon pennellii
|
F.13
|
|
|
|
|
|
|
|
M
|
|
|
macroarray
|
D.29
|
|
MADS-box genes
|
B.27
|
|
maize
|
5.07
, B.05
,
B.17
, B.26
, B.44
, C.16
, C.19
, C.20
, C.21
|
|
Malus x domestica
|
B.31
, E.20
|
|
mandarin
|
C.51
|
|
mapping
|
C.14
|
|
marker gene
|
H.01
|
|
marker-assisted selection
|
C.13
|
|
marker-free
|
H.14
|
|
markers
|
H.15
|
|
MAS
|
F.08
|
|
mating type
|
D.41
|
|
meat quality
|
4.02
, 4.08
|
|
Medicago
|
B.11
|
|
Medicago sativa
|
D.18
, H.07
, 5.08
|
|
Medicago truncatula
|
B.03
, B.07
, B.41
|
|
medicinal plants
|
G.01
|
|
Mediterranean forest
|
D.05
|
|
mei2
|
B.21
|
|
meiosis
|
B.21
, C.50
, C.58
|
|
meiotic gene
|
B.14
|
|
melanocortin-4 receptor
|
C.70
|
|
melon
|
D.44
|
|
membrane proteins
|
A.04
|
|
Meretrix spp.
|
5.16
|
|
meristem
|
B.12
|
|
message abundance andlocalisation
|
E.10
|
|
metabolic engineering
|
5.01
, A.01
,
B.35
|
|
metabonomics
|
B.44
|
|
micotoxigenic fungi
|
F.06
|
|
microarray
|
B.03
, B.22
, B.33
, B.37
, F.24
, 5.15
|
|
micro-morphological traits
|
C.10
|
|
micropropagation
|
D.43
|
|
microRNAs
|
B.26
|
|
microsatellite-amplified fragment
length polymorphism
|
2.05
|
|
microsatellite loci
|
F.26
|
|
microsatellite markers
|
C.72
|
|
microsatellites
|
2.04
, 5.02
, C.45
,
E.05
, 5.12
|
|
microsynteny
|
B.11
|
|
milk proteins
|
4.10
|
|
milk quality
|
4.02
, 4.10
|
|
mip1
|
B.21
|
|
MIPS
|
B.09
|
|
MIR genes
|
B.26
|
|
mitochondria
|
5.05
, 5.06
, B.03
|
|
mlo
|
C.13
|
|
molecular assisted breeding
|
D.09
|
|
molecular chaperones
|
F.01
|
|
molecular characterization
|
D.45
|
|
molecular descriptors
|
E.07
, E.12
|
|
molecular diversity
|
B.09
, C.17
|
|
molecular farming
|
5.01
, A.02
|
|
molecular marker
|
2.12
,
4.07
, B.17
,
B.23
, C.06
, C.09
, C.31
, C.34
, C.41
, C.46
, C.54
, C.57
, C.65
, F.17
, H.08
|
|
molecular tools
|
4.01
|
|
molecular traceability
|
E.09
, F.26
|
|
Monodehydroascorbate Reductase
|
F.13
|
morphological characters
|
G.04
|
|
morphological sterility
|
E.08
|
|
mortality
|
F.28
|
|
MSAP
|
D.35
|
|
mtDNA
|
C.72
|
|
mtDNA polymorphisms
|
5.16
|
|
mulberry germplasm
|
C.38
|
|
multigenic resistance
|
1.09
|
|
multiplex PCR
|
H.11
, H.13
|
|
multivariate analyses
|
C.27
|
|
mutagenesis
|
C.22
|
|
mutant
|
A.08
, C.16
,
D.20
|
|
mutant phenotypic screening
|
B.42
|
|
myb4 gene
|
E.18
|
|
Myrtus communis
|
G.04
|
|
|
|
|
|
|
|
N
|
|
|
NAC transcription factors
|
1.05
|
|
network of excellence
|
C.61
|
|
Nicotiana benthamiana
|
A.05
, A.07
|
|
Nicotiana langsdorffii
|
H.05
|
Nicotiana tabacum
|
1.08
, A.01
,
A.06
, A.08
, B.18
, L.01
, L.04
, 5.08
|
|
NIRs
|
F.14
|
|
nitric oxide
|
1.04
, D.02
|
|
nitrogen fixation
|
B.37
|
|
non-destructive
|
F.14
|
|
non-host resistance
|
1.01
|
|
Norway spruce
|
C.64
|
|
nuclear microsatellites
|
C.62
, C.67
|
|
nuclear magnetic resonance
|
B.44
|
|
nucleotide binding protein
|
1.07
|
|
nucleotide-binding-site
motif
|
D.36
|
|
nutrient solution
|
D.24
|
|
|
|
|
|
|
|
O
|
|
|
oak decline
|
D.42
|
|
Olea europaea
|
C.45
, C.46
, C.47
, C.48
, C.49
, D.04
, E.01
, E.09
|
|
oligo-array
|
5.04
|
|
olive oil DNA
|
F.26
|
|
Ophiostoma
|
D.37
|
|
orange
|
D.50
|
|
or
chids
|
C.59
|
|
organic farming
|
C.60
, F.19
|
|
organic seed production
|
C.60
|
|
organ-specific expression
|
B.40
|
|
ornamental crops
|
C.57
|
|
osmotic stress
|
5.17
|
|
Osmyb4
|
E.16
|
|
oxidative stress
|
D.05
|
|
oxylipins
|
D.34
|
|
ozone
|
D.05
|
|
ozone stress
|
D.03
|
|
ozone-associated genes
|
D.03
|
|
|
|
|
|
|
|
P
|
|
|
P. x euramericana
|
E.21
|
|
P. graminea
|
C.14
|
|
PAL
|
C.47
|
|
pathogenesis
|
1.01
|
|
PCR
|
F.07
, F.26
|
|
PCR based markers
|
B.47
|
|
PCR-RFLP
|
C.70
|
|
peach
|
C.53
, F.24
|
|
Penicillium italicum
|
D.50
|
|
pentatricopeptide repeat protein
|
5.07
|
|
Petunia hybrida
|
B.06
, B.21
|
|
PGIP
|
D.46
|
|
P-glycoprotein
|
C.16
|
|
PGPR
|
D.43
|
|
pharmaceuticals
|
A.08
|
|
phaseolin
|
5.08
,
C.32
, C.33
|
|
Phaseolus
|
4.01
|
|
Phaseolus spp.
|
B.09
, B.11
|
|
Phaseolus vulgaris
L.
|
2.02
, B.09
,
C.33
|
|
phenolic compounds
|
4.09
, B.19
|
|
phenols
|
L.04
|
|
phenotipic traits
|
C.40
|
phenotype
|
C.22
|
|
phenotypical evaluation
|
C.26
|
|
phenylalanine ammonia-lyase
|
B.19
|
|
photomorphogenesis
|
F.15
|
|
phytoremediation
|
L.04
|
|
phosphomannose isomerase
|
H.01
|
|
photosynthesis
|
L.03
|
|
phyA gene
|
E.18
|
|
phyllotaxis
|
B.05
|
|
phylogeography
|
2.12
|
|
phylogenesis
|
B.27
|
|
physiologic race
|
D.44
|
|
physiological-biochemical
test
|
D.56
|
|
phytates
|
B.09
|
|
phytochelatin
|
L.01
|
|
phytochrome
|
F.15
|
|
phytochrome A
|
C.48
|
|
Phytophthora citrophthora
|
D.50
|
|
phytoremediation
|
L.02
|
|
pig
|
C.70
|
|
PIN
|
B.05
|
|
Pinot noir ripening
|
B.33
|
|
Pinus sylvestris
|
C.68
|
|
Pirus communis
|
E.01
, E.18
|
|
plant architecture
|
G.02
|
|
plant biotechnology
|
1.08
|
|
plant cell culture
|
A.03
|
|
plant defence
|
D.39
, D.49
|
|
plant
defense
|
1.04
|
|
plant disease
|
1.02
, 1.07
, 1.08
, 1.10
, D.26
,
D.27
, D.33
, D.40
, D.48
|
|
plant immunity
|
1.01
|
|
plant improvement
|
4.01
|
|
plant metabolic engineering
|
F.16
|
|
plant regeneration
|
E.04
|
|
plant resistance
|
1.05
|
|
plant resistance gene
|
D.47
|
|
plant-pathogen interaction
|
D.02
, D.30
, D.31
|
|
plasmid
|
H.03
|
|
plastid
|
F.11
|
|
plastid transcription
|
5.15
|
|
plastid transformation
|
5.01
, 5.03
, 5.10
|
|
plastome inheritance
|
5.12
|
|
Platanus acerifolia
|
1.02
|
|
ploidy
|
C.34
|
|
ploidy bridges
|
C.23
|
|
Pm13 gene
|
D.40
|
|
Pmi
|
H.01
|
|
point mutation
|
B.42
|
|
polymorphism
|
2.04
, 4.06
|
|
polimorphic information
content (PIC)
|
C.09
|
|
pollen
|
C.58
|
|
pollen pistil interaction
|
B.16
|
|
pollen tube growth
|
B.16
|
|
polymeric proteins
|
F.02
|
|
polymorphism
|
C.20
, C.69
|
|
polyploidization
|
C.73
|
|
poplar clones
|
E.21
|
|
poplar genome
|
C.66
|
|
population genetics
|
C.54
, C.62
, C.64
|
|
Populus
|
2.06
, C.65
,
D.03
|
|
Populus alba
|
C.66
, D.23
, E.22
, E.23
|
|
Populus nigra
|
C.66
|
|
posidonia
|
D.24
|
|
Posidonia oceanica
L.
|
D.07
, D.14
, D.21
|
|
post-harvest disease
|
D.50
|
|
post-transcriptional gene
silencing
|
1.07
|
|
potato
|
5.03
, C.24
,
C.73
, F.18
|
|
potato tubers
|
F.19
|
|
powdery mildew
|
1.01
|
|
powdery mildew resistance
|
C.13
, D.40
|
|
poxC
|
L.04
|
|
Ppi1
|
B.04
|
|
PR-proteins
|
1.05
|
|
probability of coincidence
|
E.12
|
|
Programmed Cell Death (PCD)
|
D.52
|
|
proinsulin
|
A.07
|
|
prolamins
|
4.03
|
|
propagative material
|
C.68
|
|
protease inhibitors
|
D.51
|
protein
|
5.05
|
|
protein and carbohydrate
metabolism
|
B.45
|
|
protein traffic and accumulation
|
F.01
|
|
protein-protein interaction
|
D.11
|
|
proteome
|
B.37
|
|
proteomic
|
1.03
|
|
proton pump
|
B.04
|
|
protoplast fusion
|
C.51
|
|
Prunus avium
|
E.01
|
|
Prunus persica
|
C.52
, E.13
, E.14
, F.23
|
|
pure line identification
|
C.06
|
|
putative function
|
E.03
|
|
PVX
|
A.05
, A.07
|
|
Pyrenophora graminea
|
D.41
, F.08
|
|
Pyrenophora teres
|
C.14
, D.41
|
|
|
|
|
|
|
|
Q
|
|
|
QTL
|
4.02
, C.04
,
C.08
, C.71
, E.19
|
|
quality
|
C.02
, F.03
, F.09
|
|
Quantitative Trait Loci(QTLs)
|
C.18
|
|
Quercus suber
|
C.67
|
|
|
|
|
|
|
|
R
|
|
|
ra1 mutant
|
C.21
|
|
Ralstonia solanacearum
|
D.48
|
|
random forests
|
6.02
|
|
RAPD
|
2.03
, B.34
|
|
Rapid Visco Analyzer
|
F.09
|
|
rDNA
|
C.56
|
|
rDNA amplification
|
D.56
|
|
real time RT-PCR
|
D.22
|
|
Real-Time
|
H.12
|
|
Real-Time PCR
|
B.19
, B.40
, D.17
, D.35
, F.06
, H.03
, H.04
|
|
recombinant protein
|
A.05
|
|
red chicory
|
C.40
|
|
reflectance spectroscopy
|
D.50
|
|
regeneration
|
E.18
|
|
Regions of Provenance
|
C.68
|
|
regulation of transcription
|
D.10
|
|
regulator gene
|
4.05
|
|
re-introduction
|
C.03
|
|
reproduction
|
F.27
|
|
reproductive mode
|
C.55
|
|
resistance
|
D.44
|
|
resistance gene
|
2.08
, 1.08
,
C.25
,
D.26
, D.35
, D.48
, E.19
, E.23
, F.17
|
|
resveratrol
|
E.23
|
|
retrotransposons
|
B.41
, C.39
|
|
retrotrasposon
|
B.43
|
|
R-gene markers
|
D.36
|
|
RHA
|
F.20
, F.21
|
|
rheology
|
4.03
|
|
Rhizoctonia
|
D.43
|
|
Rhodobacter sphaeroides
|
L.03
|
|
Ribosome Inactivating Protein
|
D.39
|
|
ripening
|
4.04
, E.03
,
F.11
, F.14
|
|
risk perception
|
H.02
|
|
RNA silencing
|
1.06
|
|
rob(1;29)
|
F.27
|
|
rolD
|
B.01
|
|
root hairs
|
D.54
|
|
root secretion
|
A.02
|
|
roots
|
B.01
, B.07
|
|
RP-HPLC
|
F.07
|
|
Ruditapes spp.
|
5.16
|
|
|
|
|
|
|
|
S
|
|
|
SAG12-IPT
|
C.35
|
|
Salix spp.
|
L.02
|
|
salt stress
|
D.21
, D.25
, 5.17
|
|
sapogenins
|
B.38
|
|
saponins
|
B.38
|
|
scFv
|
A.02
|
|
secondary embryogenesis
|
E.04
|
|
secondary metabolites
|
A.01
, D.28
, G.02
|
|
seed development
|
5.07
|
|
seed proteins
|
C.32
|
|
seed quality
|
B.09
, F.10
|
|
seed size
|
C.35
|
|
seed trait
|
C.33
|
|
seedless
|
C.51
|
|
selection signatures
|
C.31
|
|
self-incompatibility
|
E.08
|
|
self-learning processes
|
6.02
|
|
senescence
|
B.03
, C.35
|
|
sequence-specific amplification
polymorphism
|
2.05
|
|
sequencing
|
B.47
|
|
SERK
|
B.15
|
|
sex locus
|
C.44
|
|
sexual hybrydization
|
C.23
|
|
sexual reproduction
|
D.41
|
|
SGP1
|
F.04
|
|
shade avoidance response
|
D.08
|
|
SHATTERPROOF
|
B.10
|
|
sheep
|
F.28
|
|
silencing suppression
|
1.07
|
|
similarity relationships
|
E.07
|
|
Simple Sequence Repeat
|
E.05
|
|
Single Nucleotide Polymorphism
(SNP)
|
2.06
, C.11
,
C.47
, C.52
|
|
SNP
|
C.12
, C.13
, C.42
, C.48
, C.64
|
|
SNP discovery
|
C.53
|
|
SOD
|
D.23
|
|
software description
|
C.54
|
|
soil
|
E.23
|
|
soil-borne cereal mosaic
virus (SBCMV)
|
C.04
|
|
Solanum aethiopicum
L.
|
4.07
, C.28
,
C.29
|
|
Solanum bulbocastanum
|
2.08
|
|
Solanum melongena
|
C.28
, C.29
|
|
Solanum spp.
|
C.27
|
|
Solanum tuberosum
|
5.15
|
|
somatic embryogenesis
|
B.39
|
|
somatic hybridization
|
C.28
, C.29
|
|
sorghum
|
B.26
|
|
sour orange
|
2.03
|
|
soybean contamination
|
H.03
|
|
Spinacia oleracea
|
5.13
|
|
SPME-GC/MS
|
F.09
|
|
sporogenesis
|
B.15
|
|
S-SAP
|
C.39
|
|
SSCP
|
C.65
|
|
SSH
|
D.47
|
|
SSH-PCR select
|
4.05
|
|
SSR
|
B.31
, B.34
, C.01
, C.43
, C.45
, C.55
|
|
SSR markers
|
C.26
, C.44
, E.08
|
|
stable isotope analysis
|
F.19
|
|
stamen development
|
B.18
|
|
starch
|
F.04
|
|
stony hard
|
E.14
|
|
storage proteins
|
F.01
|
|
stress resistance
|
D.13
|
|
stress tolerance
|
1.02
, C.07
,
D.18
, E.16
, E.23
|
|
sunflower
|
B.29
, C.37
, D.55
|
|
suppression subtractive
hybridisation
|
D.03
, E.22
|
|
sustainable agriculture
|
G.01
|
|
symbiontic associations
|
1.04
|
|
synteny
|
B.17
, C.12
|
|
systemic resistance
|
D.28
|
|
|
|
|
|
|
|
T
|
|
|
Tail-anchored
|
A.04
|
|
TDF
|
E.03
|
|
T-DNA insertion
|
1.05
|
|
T-DNA mutant
|
D.11
|
|
technological properties
|
4.08
|
|
test cross
|
F.20
|
|
tetraploid wheats
|
F.07
|
|
three-way interactions
|
1.03
|
|
TILLING
|
C.22
|
|
tocopherol
|
E.06
|
|
tomato
|
1.09
, 4.04
, A.06
,
B.47
, C.22
, D.30
, D.31
, D.45
, D.47
, F.11
, F.15
, H.13
|
|
tomato ecotypes
|
F.17
|
|
tomato flower development
|
D.19
|
|
tomato fruits
|
D.24
|
|
tomato spotted wilt virus
(TSWV)
|
D.29
|
|
tospovirus
|
D.32
|
|
totipotency
|
B.12
, B.39
|
|
traceability
|
4.02
, H.06
|
|
trangenic wheat
|
B.28
|
|
transcription factor
|
A.01
, B.07
, C.15
, D.15
, B.31
|
|
transcription profile
|
E.20
|
|
transcriptional factors
|
F.25
|
|
transcriptional profiling
|
D.30
|
|
transcriptomic
|
4.08
, L.02
|
|
transformation
|
E.01
|
|
transgenic
|
F.18
|
|
transgenic plants
|
1.06
, D.32
,
E.16
, H.07
|
|
transient expression
|
A.05
, A.07
|
|
trans-resveratrol
|
F.12
|
|
trasformation
|
E.18
|
|
Trichoderma
|
1.03
, D.28
|
|
Trigla lucerna
|
C.72
|
|
triterpene saponins
|
B.35
|
|
Triticum
|
B.27
|
|
Triticum aestivum
|
2.11
, C.06
,
D.38
, D.46
|
|
Triticum dicoccum
|
C.01
, C.02
|
|
Triticum durum
|
2.11
, C.05
,
C.06
|
|
Triticum spelta
|
C.02
|
|
tRNA
|
5.05
|
|
trnT-trnD spacer
|
E.09
|
|
trpr gene
|
E.01
|
|
trypsin inhibitors
|
B.40
|
|
Tuber magnatum
|
C.55
|
|
two dimensional chromatography
|
B.46
|
|
two-dimensional electrophoresis
|
B.02
|
|
TYLCSV
|
D.35
|
|
TYLCV
|
D.31
|
|
|
|
|
|
|
|
U
|
|
|
uidA reporter gene
|
D.49
|
|
uncoupling protein
|
5.17
|
|
unfertilised ovules
|
E.04
|
|
UPGMA
|
E.07
|
|
US/EU regulations
|
H.09
|
|
|
|
|
|
|
|
V
|
|
|
validation |
H.04
|
|
variability
|
C.01
|
|
variant
|
4.06
|
|
variety identification
|
2.02
|
|
vascular development
|
D.08
|
|
Venturia inaequalis
|
E.19
|
|
Vetiver root
|
D.56
|
|
VIGS
|
1.06
, F.15
|
|
viral recombination
|
D.29
|
|
virulence
|
D.27
|
|
virus resistance
|
D.32
|
|
virus-derived sequences
|
D.31
|
|
vitamin E
|
A.03
|
|
Vitis vinifera
|
5.02
, E.02
,
E.04
, H.04
|
|
Vitis vinifera spp.
silvestris
|
C.44
|
|
vivipary
|
G.03
|
|
VLPs
|
A.06
|
|
|
|
|
|
|
|
W
|
|
|
wall extension
|
B.06
|
|
water deficit
|
D.06
|
|
water-use efficiency
|
C.05
|
|
waxy
|
F.04
, F.05
|
|
weeds
|
H.15
|
|
wheat
|
C.09
, C.10
, D.15
, F.03
, F.04
, H.12
|
|
wheat gluten proteins
|
B.28
|
|
Wheat Head Scab (WHS)
|
D.38
|
|
wheat transformation
|
H.14
|
|
wheat-alien gene transfer
|
D.36
|
|
white poplar
|
E.22
|
|
wild and cultivated cardoon
|
C.39
|
|
wild species
|
H.15
|
|
wild strawberry
|
1.10
|
|
|
|
|
|
|
|
X
|
|
|
xyloglucan endo-transglycosylase
|
E.15
|
|
|
|
|
|
|
|
Y
|
|
|
yeast
|
2.09
|
|
yield components
|
C.08
|
|
y-type
|
F.03
|
|
|
|
|
|
|
|
Z
|
|
|
Zea mays L.
|
B.24
, C.17
, C.18
, D.06
, D.16
, D.39
|
|
zein
|
5.08
|
|
zinc finger domain
|
C.21
|
|
zygomorphic flowers
|
C.36
|
|
zygotic embryogenesis
|
B.39
|
|
|
|
|
|