Frontiers in Plant Science,
Год журнала:
2023,
Номер
14
Опубликована: Апрель 6, 2023
Plants
release
a
large
variety
of
metabolites
via
their
roots
to
shape
physico-chemical
soil
properties
and
biological
processes
in
the
rhizosphere.
While
hydroponic
growth
conditions
facilitate
accessibility
root
system
recovery
exudates,
natural
environment
can
alter
metabolism
exudate
secretion,
raising
question
what
extent
quantity
composition
exudates
released
systems
reflect
those
recovered
from
soil-grown
roots.Using
washing
method,
we
sampled
four
field-grown
cover
crop
species
with
wide
taxonomic
distance,
namely
white
mustard,
lacy
phacelia,
bristle
oat,
Egyptian
clover.
A
set
primary
secondary
were
analysed
targeted
untargeted
LC-MS-based
approach,
respectively,
for
comparison
obtained
hydroponically
cultured
plants.We
found
that
cultivated
plants
larger
amount
total
carbon,
but
carbon
was
not
indicative
diversity
exudates.
In
field,
phacelia
clover
contained
2.4
3.8
times
more
metabolites,
whereas
exudation
hydroponics
5-
4-fold
higher.
The
identified
using
approach
much
distinct
among
all
than
quantified
metabolites.
Among
metabolite
classes,
presence
lipids
lipid-like
molecules
highly
field
samples,
while
phenylpropanoids,
organoheterocyclic
compounds
or
benzenoids
characteristic
clover,
mustard
irrespective
cultivation
condition.
However,
at
compound
level
bulk
specific
every
species,
which
implies
poorly
metabolic
complexity
plants.
As
primary
producers,
plants
rely
on
a
large
aboveground
surface
area
to
collect
carbon
dioxide
and
sunlight
underground
the
water
mineral
nutrients
needed
support
their
growth
development.
Accessibility
of
essential
nitrogen
(N)
phosphorus
(P)
in
soil
is
affected
by
many
factors
that
create
variable
spatiotemporal
landscape
availability
both
at
local
global
scale.
Plants
optimize
uptake
N
P
available
through
modifications
development
engagement
with
microorganisms
facilitate
capture.
The
sensing
these
nutrients,
as
well
perception
overall
nutrient
status,
shapes
plant's
response
its
environment,
coordinating
microbial
capture
regulate
plant
growth.
Annual Review of Plant Biology,
Год журнала:
2019,
Номер
70(1), С. 465 - 488
Опубликована: Март 1, 2019
In
order
to
optimally
establish
their
root
systems,
plants
are
endowed
with
several
mechanisms
use
at
distinct
steps
during
development.
this
review,
we
zoom
in
on
the
major
processes
involved
development
and
detail
important
new
insights
that
have
been
generated
recent
studies,
mainly
using
Arabidopsis
as
a
model.
First,
discuss
primary
characterization
of
tissue-specific
transcription
factor
complexes
identification
non-cell-autonomous
control
apical
meristem.
Next,
branching
is
discussed
by
focusing
earliest
lateral
its
postemergence
growth.
Finally,
impact
phosphate,
nitrogen,
water
availability
summarize
current
knowledge
about
molecular
involved.
Biochemical Journal,
Год журнала:
2019,
Номер
476(19), С. 2705 - 2724
Опубликована: Окт. 11, 2019
Abstract
Plants
growing
in
soil
develop
close
associations
with
microorganisms,
which
inhabit
the
areas
around,
on,
and
inside
their
roots.
These
microbial
communities
associated
genes
—
collectively
termed
root
microbiome
are
diverse
have
been
shown
to
play
an
important
role
conferring
abiotic
stress
tolerance
plant
hosts.
In
light
of
concerns
over
threat
water
nutrient
facing
terrestrial
ecosystems,
especially
those
used
for
agricultural
production,
increased
emphasis
has
placed
on
understanding
how
conditions
influence
composition
functioning
ultimate
consequences
health.
However,
under
will
not
only
reflect
shifts
greater
bulk
community
from
plants
recruit
but
also
responses
stress,
include
changes
exudate
profiles
morphology.
Exploring
relative
contributions
these
direct
plant-mediated
effects
focus
many
studies
recent
years.
Here,
we
review
impacts
affecting
specifically
flooding,
drought,
nitrogen
phosphorus
availability,
that
interact
ultimately
shape
microbiome.
We
conclude
a
perspective
outlining
possible
directions
future
research
needed
advance
our
complex
molecular
biochemical
interactions
between
soil,
plants,
microbes
determine
stress.
Journal of Integrative Plant Biology,
Год журнала:
2021,
Номер
63(6), С. 1065 - 1090
Опубликована: Март 12, 2021
Abstract
Phosphorus
is
an
essential
macronutrient
for
plant
growth
and
development.
Root
system
architecture
(RSA)
affects
a
plant's
ability
to
obtain
phosphate,
the
major
form
of
phosphorus
that
plants
uptake.
In
this
review,
I
first
consider
relationship
between
RSA
phosphorus‐acquisition
efficiency,
describe
how
external
conditions
both
induce
impose
changes
in
crops
model
Arabidopsis
,
discuss
whether
shoot
status
there
universal
root
developmental
response
across
all
species.
then
summarize
current
understanding
molecular
mechanisms
governing
responses
deficiency.
also
explore
possible
reasons
inconsistent
results
reported
by
different
research
groups
comment
on
relevance
some
studies
performed
under
laboratory
what
occurs
natural
environments.
Molecular Plant,
Год журнала:
2021,
Номер
15(1), С. 86 - 103
Опубликована: Дек. 16, 2021
Optimal
plant
development
requires
root
uptake
of
14
essential
mineral
elements
from
the
soil.
Since
bioavailability
these
nutrients
underlies
large
variation
in
space
and
time,
plants
must
dynamically
adjust
their
architecture
to
optimize
nutrient
access
acquisition.
The
information
on
external
availability
whole-plant
demand
is
translated
into
cellular
signals
that
often
involve
phytohormones
as
intermediates
trigger
a
systemic
or
locally
restricted
developmental
response.
Timing
extent
such
local
responses
depend
overall
nutritional
status
transmitted
shoots
roots
form
other
long-distance
signals.
integration
then
determines
cell
division
elongation
rates
primary
lateral
roots,
initiation,
emergence,
well
formation
hairs.
Here,
we
review
cascades
nutrient-related
sensing
signaling
events
hormones
highlight
nutrient–hormone
relations
coordinate
plasticity
plants.
International Journal of Molecular Sciences,
Год журнала:
2022,
Номер
23(4), С. 1933 - 1933
Опубликована: Фев. 9, 2022
The
hormones
auxin
and
cytokinin
regulate
numerous
aspects
of
plant
development
often
act
as
an
antagonistic
hormone
pair.
One
the
more
striking
examples
auxin/cytokinin
antagonism
involves
regulation
shoot/root
growth
ratio
in
which
promotes
shoot
inhibits
root
growth,
whereas
does
opposite.
Control
is
essential
for
survival
terrestrial
plants
because
it
allows
adaptations
to
water
mineral
nutrient
availability
soil.
Because
a
decrease
combined
with
increase
leads
under
drought
stress
limiting
conditions,
was
not
surprising
find
that
promotes,
while
reduces,
tolerance
uptake.
Recent
data
show
also
alter
signaling
biosynthesis
pathways
this
stress-induced
affects
opposite
manner.
These
effects
suggested
each
directly
negatively
regulates
or
other.
However,
growing
body
evidence
supports
unidirectional
regulation,
emerging
primary
regulatory
component.
This
master
role
may
come
surprise
when
viewed
from
evolutionary
perspective.
Current Opinion in Plant Biology,
Год журнала:
2021,
Номер
65, С. 102117 - 102117
Опубликована: Окт. 6, 2021
In
most
soils,
the
spatial
distribution
of
nutrients
and
water
in
rooting
zone
plants
is
heterogeneous
changes
over
time.
To
access
localized
resources
more
efficiently,
induce
foraging
responses
by
modulating
individual
morphological
root
traits,
such
as
length
primary
or
number
lateral
roots.
These
adaptive
require
integration
exogenous
endogenous
nutrient-
water-related
signals
into
developmental
program.
Recent
studies
corroborated
a
central
role
auxin
shaping
architectural
traits
response
to
fluctuating
nutrient
availabilities.
this
review,
we
highlight
current
knowledge
on
processes
that
impact
involve
player.
A
deeper
understanding
exploitation
these
auxin-related
mechanisms
promises
advances
crop
breeding
for
higher
resource
efficiency.
Cold Spring Harbor Perspectives in Biology,
Год журнала:
2021,
Номер
unknown, С. a039941 - a039941
Опубликована: Фев. 8, 2021
Nicola
Cavallari,
Christina
Artner
and
Eva
Benkova
Institute
of
Science
Technology
Austria,
3400
Klosterneuburg,
Austria
Correspondence:
eva.benkova{at}ist.ac.at