Intercropping Different Legumes in Tea Plantation Improves Soil Properties and Tea Quality Components by Regulating Rhizosphere Soil Microorganisms
M. Chen,
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Pinqian Zhou,
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Qiang Bao
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et al.
Agronomy,
Journal Year:
2025,
Volume and Issue:
15(3), P. 511 - 511
Published: Feb. 20, 2025
Intercropping
legumes
is
an
effective
and
sustainable
planting
pattern
that
has
the
benefit
of
decreasing
chemical
fertilizer
input
improving
soil
environment.
However,
effects
reduction
intercropping
different
on
nutrients,
microorganisms,
tea
quality
remain
elusive.
Hereby,
compared
with
100%
(CK),
Sesbania
cannabina
(SC)
Crotalaria
pallida
Blanco
(CP)
were
selected
as
intercropped
plant
70%
to
investigate
its
effect
quality.
The
results
showed
monocropping,
had
greater
concentrations
labile
organic
matter,
nitrate
nitrogen,
ammonia
inorganic
alkali-hydrolyzable
nitrogen.
systems
significantly
enhanced
content
non-ester-type
catechins
(catechin
gallocatechin)
ester-type
(epicatechin
gallate).
In
SC,
gallocatechin,
catechin,
epicatechin
gallate
increased
by
146.67%,
107.69%,
21.05%,
respectively,
while
in
CP,
these
three
compounds
166.67%,
84.62%,
19.08%,
respectively.
Significant
differences
microbial
composition
also
observed
under
systems.
Actinobacteria,
Rhodoplanes,
Thaumarchaeota
obviously
Rhodanobacter,
Pseudolabrys,
Pedosphaera
manifestly
improved
CP
those
monoculture.
Moreover,
abundances
CNP
cycling
functional
genes,
such
gpmB,
mch,
accD6,
pgi-pmi,
mcr,
glmS,
ACOX1
fadB
(carbohydrate
metabolism),
nirD
narI
(nitrification),
pmoB-amoB
hao
(dissimilatory
N
reduction),
phoN
(organic
phosphoester
hydrolysis).
relationship
between
qualities
was
mainly
established
nutrition
abundance
C
microorganisms.
This
study
provides
more
information
genes
tea/legume
plantations
offers
a
basis
for
higher-performance
pattern.
Language: Английский
Biodegradation of atrazine by composite mycelium LMY01: Functions, preparation feasibility and effects on soil microbial communities
Shengchen Zhao,
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Jihong Wang
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The Microbe,
Journal Year:
2025,
Volume and Issue:
6, P. 100241 - 100241
Published: Jan. 16, 2025
Language: Английский
Nitrogen-rich roots regulate microbial- and plant-derived carbon in alkali-saline soil under land-use conversions in the Songnen Plain
Juan Hu,
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Yi Lv,
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S. Zhao
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et al.
Soil and Tillage Research,
Journal Year:
2025,
Volume and Issue:
248, P. 106441 - 106441
Published: Jan. 23, 2025
Language: Английский
Effects of Calcium Lactate on Soil Structure and Hydrology in Coastal and Soda-Alkaline Soils
Published: Jan. 1, 2025
Language: Английский
Microbial network-driven remediation of saline-alkali soils by salt-tolerant plants
Yushuang Cui,
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Zhifang Ning,
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Menglu Li
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et al.
Frontiers in Microbiology,
Journal Year:
2025,
Volume and Issue:
16
Published: April 9, 2025
Salt-tolerant
plants
(STPs)
play
an
important
role
in
saline-alkali
soil
remediation,
but
their
interaction
with
microorganisms
remain
incompletely
elucidated.
This
study
explored
the
effects
on
microbial
community
structure,
function,
and
quality
land
of
four
treatments:
no
plant
(CK),
Triticum
aestivum
L.
(TA),
Tamarix
chinensis
Lour.
(TC),
Hibiscus
moscheutos
Linn.
(HM).
The
results
indicated
that
planting
TC,
TA,
HM
effectively
reduced
electrical
conductivity
(EC)
by
82.9,
88.3,
86.2%,
respectively.
TC
TA
significantly
decreased
pH
from
8.79
to
8.35
8.06,
respectively,
(p
<
0.05).
Moreover,
nutrient
content
enzymatic
activities
were
enhanced.
Notably,
exhibited
most
significant
improvement.
STPs
also
substantially
altered
structure
increasing
bacterial
richness
(ACE
Chao1
indices)
compared
other
treatments
promoted
relative
abundance
unclassified_Gemmatimonadaceae,
unclassified_Vicinamibacterales,
Mortierella
A
major
innovation
this
is
using
network
analysis
explore
interactions,
revealing
how
enhance
complexity.
approach
identified
Sphingomonas
as
a
key
taxon
soils,
shedding
light
dynamics
remediation.
Additionally,
partial
least
squares
path
model
(PLS-PM)
showed
improvements
primarily
driven
shifts
composition,
offering
novel
mechanistic
framework
for
understanding
contributions
restoration.
research
advances
microbial-plant
interactions
underscores
innovative
application
phytoremediation,
valuable
insights
future
restoration
strategies.
Language: Английский
Saline soil improvement promotes the transformation of microbial salt tolerance mechanisms and microbial-plant-animal ecological interactions
Keyu Yao,
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Guanghao Wang,
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Wen Zhang
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et al.
Journal of Environmental Management,
Journal Year:
2024,
Volume and Issue:
372, P. 123360 - 123360
Published: Nov. 19, 2024
Language: Английский
Effect of Combined Application of Desulfurization Gypsum and Soil Amendment KIA on Saline-Alkali Soil Improvement
Qi Xiao,
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Wei Wei,
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WU Hong-li
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et al.
Agronomy,
Journal Year:
2024,
Volume and Issue:
15(1), P. 53 - 53
Published: Dec. 28, 2024
Saline-alkali
soil
imposes
severe
adverse
effects
on
utilization
and
agriculture
production
worldwide.
Amelioration
of
saline-alkali
is
crucial
to
ensure
global
food
security
promote
sustainable
agricultural
development.
Here,
the
combined
application
amendment
desulfurization
gypsum
(G)
KIA
(K,
an
industrial
organic
by-product)
improvement
plant
growth
were
investigated.
Two
experiments,
a
column
leaching
test
pot
experiment
for
growth,
carried
out.
The
results
showed
that
G
K
reduced
pH
significantly.
Although
Na+
contents
had
no
change
in
treatments,
K+,
Ca2+
Mg2+
significantly
higher,
HCO3−
Cl−
lower,
compared
control.
Furthermore,
maize
plants
exhibited
higher
photosynthetic
rate
greater
dry
weight
treatments.
Additionally,
after
enzyme
activities
increased.
These
could
have
more
favorable
impact
by
reducing
pH,
enhancing
ion
exchange,
increasing
nutrient
contents,
promoting
growth.
Our
study
suggests
effective
eco-friendly
improving
soil.
Language: Английский