Frontiers in Plant Science,
Journal Year:
2019,
Volume and Issue:
10
Published: March 7, 2019
Chilling
requirement
for
bud
dormancy
completion
determines
the
time
of
break
in
apple
(Malus
×
domestica
Borkh.).
The
molecular
control
is
highly
heritable,
suggesting
a
strong
genetic
trait.
An
available
Infinium
II
SNP
platform
genotyping
containing
8,788
single
nucleotide
polymorphic
markers
was
employed,
and
linkage
maps
were
constructed
F1
cross
from
low
chilling
cv.
M13/91
moderate
Fred
Hough.
These
used
to
identify
quantitative
trait
loci
(QTL)
date
as
related
release.
A
major
QTL
detected
at
beginning
group
(LG)
9.
This
remained
stable
during
seven
seasons
two
different
growing
sites.
To
increase
mapping
efficiency
detecting
contributing
genes
underlying
this
QTL,
182
additional
located
locus
used.
Combining
structural
characterization
region,
high
proportion
phenotypic
variance
explained
by
coincident
positioning
Arabidopsis
orthologues
ICE1,
FLC
PRE1
protein-coding
genes.
proximity
these
most
explanatory
suggests
potential
additive
effects,
reinforcing
hypothesis
inter-dependent
mechanisms
controlling
induction
release
trees.
New Phytologist,
Journal Year:
2021,
Volume and Issue:
233(6), P. 2340 - 2353
Published: Dec. 4, 2021
Plants
have
evolved
to
time
their
leafing,
flowering
and
fruiting
in
appropriate
seasons
for
growth,
reproduction
resting.
As
a
consequence
of
adaptation
geographically
different
environments,
there
is
rich
diversity
plant
phenology
from
temperate
tropical
climates.
Recent
progress
genetic
molecular
studies
will
provide
numerous
opportunities
study
the
basis
phenological
traits
history
seasonal
aseasonal
environments.
Integrating
data
with
long-term
climate
into
predictive
models
be
powerful
tool
forecast
future
changes
face
global
environmental
change.
Here,
we
review
cross-scale
approach
genes
communities
three
aspects:
latitudinal
gradient
at
community
level,
factors
underlying
phenology,
an
integrated
based
on
genetically
informed
knowledge.
Synthesizing
latest
knowledge
about
molecular,
ecological
mathematical
perspectives
help
us
understand
how
natural
selection
can
lead
further
evolution
gene
regulatory
mechanisms
forest
ecosystems.
The Plant Journal,
Journal Year:
2018,
Volume and Issue:
97(1), P. 40 - 55
Published: Nov. 16, 2018
Plant
phenotypes
are
the
result
of
both
genetic
and
environmental
forces
that
act
to
modulate
trait
expression.
Over
last
few
years,
numerous
approaches
in
functional
genomics
systems
biology
have
led
a
greater
understanding
plant
phenotypic
variation
responses
environment.
These
approaches,
questions
they
can
address,
been
loosely
termed
evolutionary
ecological
(EEFG),
providing
key
insights
on
how
plants
adapt
evolve.
In
particular,
by
bringing
these
studies
from
laboratory
field,
EEFG
allow
us
gain
knowledge
function
their
natural
contexts.
Plants,
Journal Year:
2020,
Volume and Issue:
9(7), P. 831 - 831
Published: July 2, 2020
Fungal
storage
rots
like
blue
mould,
grey
bull’s
eye
rot,
bitter
rot
and
brown
destroy
large
amounts
of
the
harvested
apple
crop
around
world.
Application
fungicides
is
nowadays
severely
restricted
in
many
countries
production
systems,
these
problems
are
therefore
likely
to
increase.
Considerable
variation
among
cultivars
resistance/susceptibility
has
been
reported,
suggesting
that
efficient
defence
mechanisms
can
be
selected
for
used
plant
breeding.
These
are,
however,
vary
between
pathogens,
since
some
fungi
mainly
wound-mediated
while
others
attack
through
lenticels
or
by
infecting
blossoms.
Since
mature
fruits
considerably
more
susceptible
than
immature
fruits,
involving
fruit-ripening
processes
play
an
important
role.
Significant
associations
have
detected
susceptibility
fruit
various
maturation-related
traits
ripening
time,
firmness
at
harvest
rate
softening
during
storage,
as
well
biochemical
contents
acidity,
sugars
polyphenols.
Some
sources
resistance
mould
described,
but
research
needed
on
development
spore
inoculation
methods
produce
reproducible
data
screenings,
especially
lenticel-infecting
fungi.
Global Change Biology,
Journal Year:
2025,
Volume and Issue:
31(1)
Published: Jan. 1, 2025
ABSTRACT
Climate
change
poses
an
unprecedented
threat
to
forest
ecosystems,
necessitating
innovative
adaptation
strategies.
Traditional
assisted
migration
approaches,
while
promising,
face
challenges
related
environmental
constraints,
forestry
practices,
phytosanitary
risks,
economic
barriers,
and
legal
constraints.
This
has
sparked
debate
within
the
scientific
community,
with
some
advocating
for
broader
implementation
of
despite
these
limitations,
others
emphasize
importance
local
adaptation,
which
may
not
keep
pace
rapid
rate
climate
change.
opinion
paper
proposes
a
novel
pollen‐based
strategy
as
potential
middle
ground
in
this
debate.
By
leveraging
existing
seed
orchard
infrastructure
controlled
pollen
transfer,
approach
aims
enhance
resilience
through
introduction
genetic
material
from
climatically
suitable
sources
acknowledging
adaptation.
We
assess
implications
proposed
computer
simulation.
Additionally,
we
examine
ecological
gene
flow,
discussing
benefits
heterosis
risks
outbreeding
depression
intra‐specific
hybrid
populations.
further
explore
advantages
mitigating
reducing
simplifying
considerations
compared
traditional
or
seedling
transfer
methods.
Regional
perspectives
on
adapting
are
provided,
specific
examples
Northern
Central
Europe.
highlight
how
could
be
integrated
into
practices
regulatory
frameworks
European
Union.
conclude
by
inclusion
future
international
projects
operational
forestry,
emphasizing
need
adaptable
policies
that
can
support
management
strategies
Frontiers in Plant Science,
Journal Year:
2019,
Volume and Issue:
10
Published: March 7, 2019
Chilling
requirement
for
bud
dormancy
completion
determines
the
time
of
break
in
apple
(Malus
×
domestica
Borkh.).
The
molecular
control
is
highly
heritable,
suggesting
a
strong
genetic
trait.
An
available
Infinium
II
SNP
platform
genotyping
containing
8,788
single
nucleotide
polymorphic
markers
was
employed,
and
linkage
maps
were
constructed
F1
cross
from
low
chilling
cv.
M13/91
moderate
Fred
Hough.
These
used
to
identify
quantitative
trait
loci
(QTL)
date
as
related
release.
A
major
QTL
detected
at
beginning
group
(LG)
9.
This
remained
stable
during
seven
seasons
two
different
growing
sites.
To
increase
mapping
efficiency
detecting
contributing
genes
underlying
this
QTL,
182
additional
located
locus
used.
Combining
structural
characterization
region,
high
proportion
phenotypic
variance
explained
by
coincident
positioning
Arabidopsis
orthologues
ICE1,
FLC
PRE1
protein-coding
genes.
proximity
these
most
explanatory
suggests
potential
additive
effects,
reinforcing
hypothesis
inter-dependent
mechanisms
controlling
induction
release
trees.