Microbiome Engineering for Sustainable Rice Production: Strategies for Biofertilization, Stress Tolerance, and Climate Resilience
Microorganisms,
Год журнала:
2025,
Номер
13(2), С. 233 - 233
Опубликована: Янв. 22, 2025
The
plant
microbiome,
found
in
the
rhizosphere,
phyllosphere,
and
endosphere,
is
essential
for
nutrient
acquisition,
stress
tolerance,
overall
health
of
plants.
This
review
aims
to
update
our
knowledge
critically
discuss
diversity
functional
roles
rice
as
well
microbiome
engineering
strategies
enhance
biofertilization
resilience.
Rice
hosts
various
microorganisms
that
affect
cycling,
growth
promotion,
resistance
stresses.
Microorganisms
carry
out
these
functions
through
nitrogen
fixation,
phytohormone
metabolite
production,
enhanced
solubilization
uptake,
regulation
host
gene
expression.
Recent
research
on
molecular
biology
has
elucidated
complex
interactions
within
microbiomes
signalling
mechanisms
establish
beneficial
microbial
communities,
which
are
crucial
sustainable
production
environmental
health.
Crucial
factors
successful
commercialization
agents
include
soil
properties,
practical
field
conditions,
genotype.
Advances
engineering,
from
traditional
inoculants
synthetic
biology,
optimize
availability
resilience
abiotic
stresses
like
drought.
Climate
change
intensifies
challenges,
but
innovations
microbiome-shaping
genes
(M
genes)
offer
promising
solutions
crop
also
discusses
agronomic
implications
emphasizing
need
further
exploration
M
breeding
disease
traits.
Ultimately,
we
provide
an
current
findings
rice,
highlighting
pathways
productivity
sustainably
while
minimizing
impacts.
Язык: Английский
Mechanisms of Microbial VOC‐Mediated Communication in Plant Ecosystems and Agricultural Applications
Journal of Sustainable Agriculture and Environment,
Год журнала:
2025,
Номер
4(1)
Опубликована: Фев. 5, 2025
ABSTRACT
Microbial
volatile
organic
compounds
(mVOCs)
are
crucial
to
the
ecological
interactions
of
plants
and
microbes,
playing
pivotal
roles
in
plant
defence,
communication,
growth
promotion.
The
classification,
biosynthesis,
emission
processes
mVOCs,
their
multifaced
functions
activities
within
ecosystems
have
been
extensively
studied.
Moreover,
signalling
pathways
that
enable
mVOCs‐mediated
communication
between
surrounding
environment
explored.
mVOCs
critical
mediating
with
biotic
abiotic
stressors,
including
pathogens
environmental
changes.
These
contribute
enhanced
resilience
foster
beneficial
interactions.
Biotechnological
great
potential
sustainable
agriculture,
especially
natural
pest
management
crop
protection.
applications
include
various
disease
control
strategies,
such
as
biosensors,
highlighting
role
promoting
supporting
development
growth.
In
this
review,
we
explored
mechanisms
action,
types
We
also
discussed
recent
developments
use
challenges
involved.
ethical
regulatory
issues
related
using
agriculture
biotechnology
effects
on
human
health
environment.
Finally,
highlight
research
gaps
fully
leverage
mVOC
for
production
health.
Язык: Английский
Metagenomic Characterization of the Soil Microbiota-Satureja nepeta Axis and Impact of Edaphic Factors
Journal of Plant Growth Regulation,
Год журнала:
2025,
Номер
unknown
Опубликована: Март 14, 2025
Язык: Английский
Sustainable Soil Volatilome: Discrimination of Land Uses Through GC-MS-Identified Volatile Organic Compounds
Separations,
Год журнала:
2025,
Номер
12(4), С. 92 - 92
Опубликована: Апрель 8, 2025
This
study
investigates
soil
volatilomics
as
an
innovative
approach
to
assessing
the
impact
of
land
use
on
quality.
research
addresses
critical
need
for
sensitive
diagnostic
tools
distinguish
subtle
biochemical
variations
in
soils
influenced
by
different
management
practices.
Soil
samples
were
collected
along
a
transect
Cluj
County.
Their
volatile
organic
compounds
extracted
headspace
solid-phase
microextraction
(HS–SPME)
followed
gas
chromatography–mass
spectrometry
(GC–MS)
analysis.
A
multivariate
statistical
method
was
used
differentiate
volatilome
profile.
Among
106
detected
compounds,
oxygenated
species
dominated
across
all
uses,
with
highest
concentrations
forest
(77%),
grasslands
(71%)
and
agricultural
(65%).
Principal
component
analysis
revealed
distinct
clustering
patterns,
first
two
components
explaining
72.8%
total
variance
(PC1:
41.7%,
PC2:
31.1%).
Supervised
PLS-DA
modeling
demonstrated
robust
discrimination,
achieving
AUC
values
0.868
versus
comparisons
0.810
both
grassland
comparisons.
The
diversity
indicated
that
contained
number
(64),
closely
(63),
while
showed
reduced
(51).
These
key
findings
signatures,
exhibiting
complexity
demonstrating
more
homogeneous
profile,
whereas
presented
high
internal
variability.
results
underscore
potential
profiling
indicator
effects
processes
support
utility
sustainable
ecosystem
monitoring.
Язык: Английский