Unveiling the rhizosphere microbiome of Dendrobium: mechanisms, microbial interactions, and implications for sustainable agriculture
Frontiers in Microbiology,
Journal Year:
2025,
Volume and Issue:
16
Published: Jan. 29, 2025
The
rhizosphere
microbiome
plays
a
critical
role
in
plant
health
and
productivity
by
fostering
beneficial
microbial
interactions
that
support
nutrient
cycling,
stress
tolerance,
disease
suppression.
In
the
context
of
Dendrobium
,
understanding
its
is
essential
for
optimizing
cultivation
promoting
sustainable
agricultural
practices.
This
review
explores
focusing
on
mechanisms
contribute
to
health,
growth
their
implications
agriculture.
study
highlights
diverse
composition
communities
rhizosphere,
including
key
bacteria
(e.g.,
Pseudomonas
fluorescens
Bacillus
subtilis
),
fungi
Glomus
spp.),
biocontrol
agents
(
Trichoderma
discusses
roles
suppression,
promotion.
emphasizes
significance
plant-microbe
signaling,
such
as
production
flavonoids,
phytohormones,
strigolactones,
shaping
environment
enhancing
resilience.
Additionally,
it
addresses
modern
techniques
analyzing
communities,
metagenomics
next-generation
sequencing,
applications
advancing
precision
Future
research
should
focus
bridging
knowledge
gaps
related
genotype-microbiome
interactions,
exploring
emerging
consortia
integration
management
agriculture
systems
improve
productivity.
Language: Английский
Diversified Cropping of Grains and Atractylodes lancea (Thunb.) DC. Enhances Ecological Benefits of Agroecosystems
Enze Wang,
No information about this author
Yu Sun,
No information about this author
Ming Li
No information about this author
et al.
Agriculture,
Journal Year:
2024,
Volume and Issue:
14(12), P. 2327 - 2327
Published: Dec. 19, 2024
Crop
diversification
is
pivotal
in
sustainable
agriculture,
influencing
soil
microbial
communities
and
nutrient
cycling
functions.
Yet,
the
impacts
of
incorporating
medicinal
plants
into
crop
strategies
on
functional
characteristics
these
remain
understudied.
This
research
elucidates
benefits
diversified
cropping
systems
by
assessing
content,
diversity
composition
microorganisms,
abundance
genes
involved
carbon
(C),
nitrogen
(N)
phosphorus
(P)
cycling,
overall
agricultural
productivity;
collectively
referred
to
as
ecological
benefits.
The
experimental
design
included
four
treatment
groups:
(1)
continuous
maize
(Zea
mays
L.)
cultivation
(MC);
(2)
maize–A.
lancea
(Atractylodes
Thunb.)
intercropping
(MA);
(3)
maize–sorghum
(Sorghum
bicolor
rotation
(MS);
(4)
combined
with
sorghum
(MSA).
Findings
indicate
that
treatments
significantly
enhance
alpha
bacterial
over
fungal
communities.
NH4+
NO3−
predominantly
influence
communities,
a
notable
increase
relative
Acidobacteriota,
Gemmatimonadota,
Chloroflexi.
Compared
MC
treatment,
MA
MSA
increased
C
(121.44%,
294.26%),
N
(206.57%,
P
(112.02%,
225.84%)
genes.
inverse
variance
weighting
evaluation
demonstrates
that,
compared
MS
(5.34)
(8.15)
boost
Overall,
diversifying
A.
grains
can
soil.
study
offers
new
perspectives
planting,
particularly
terms
species
selection
practical
combinations
farmland.
Language: Английский