Physiological and Biochemical Adaptation of Common Garden Plants to Inorganic Nitrogen-Laden Fine Particulate Matter Stress
Keqin Xiao,
No information about this author
Yiying Wang,
No information about this author
Rongkang Wang
No information about this author
et al.
Horticulturae,
Journal Year:
2025,
Volume and Issue:
11(3), P. 337 - 337
Published: March 20, 2025
Accelerated
urbanization
has
intensified
nitrogen
deposition
and
fine
particulate
matter
(PM2.5)
pollution.
While
urban
landscape
plants
play
a
vital
role
in
atmospheric
remediation,
systematic
exploration
of
their
adaptation
strategies
to
these
dual
stressors
remains
limited.
This
study
investigated
the
dynamic
responses
antioxidant
defense
systems
nitrogen/weight
ratios
Iris
germanica
L.
Portulaca
grandiflora
Hook.
under
four
scenarios
(N0,
N1,
N2,
N4
with
concentrations
0,
15,
30,
60
kg
N·hm−2·a−1,
respectively)
combined
constant
PM2.5
exposure
(50
μg/m3).
Through
fumigation
experiments,
we
demonstrated
that
showed
higher
sensitivity
inorganic
nitrogen-laden
stress
than
Both
species
exhibited
stronger
enzyme
(SOD,
CAT,
POD)
activities
high-growth
season
compared
low-growth
season.
Nitrogen
allocation
analysis
revealed
maintained
stable
content
across
treatments,
while
progressive
loss
high
exposure.
These
findings
establish
Hook.’s
superior
resilience
through
two
synergistic
mechanisms:
modulated
efficient
remobilization.
comparative
provides
actionable
insights
for
selecting
pollution-tolerant
green
infrastructure
planning.
Language: Английский
Exploration and impacts of vehicular-borne potentially toxic elements (VB-PTEs) on Calotropis procera (Aiton) W.T.Aiton: A bioindicator approach
Journal of Hazardous Materials Advances,
Journal Year:
2025,
Volume and Issue:
unknown, P. 100753 - 100753
Published: May 1, 2025
Language: Английский
Bioremediation of Smog; Current Trends and Future Perspectives
Isha Isha,
No information about this author
Shakir Ali,
No information about this author
Ammara Khalid
No information about this author
et al.
Published: Aug. 28, 2024
Air
pollution
has
become
one
of
the
biggest
problems
throughout
world.
Smog
a
severe
effect
on
pulmonary
and
circulatory
systems,
which
causes
significant
number
deaths
globally.
Therefore,
remediation
air
pollutants
to
maintain
ecosystem
processes
functions
improve
human
health
is
crucial
problem
confronting
mankind
today.
This
review
aims
discuss
effects
smog
humans.
will
also
focus
bioremediation
(smog)
using
bacteria,
fungi,
phytoremediation,
nanotechnology,
phylloremediation
(using
plants
microbes).
Phyllo-remediation
most
effective
technology
for
removing
naturally.
The
future
perspective
presents
great
need
produce
an
where
microbes,
plants,
nanoparticles
synergistically
control
smog.
In
addition,
further
advancements
would
be
needed
modify
genetic
makeup
microbes
plants.
Biotechnological
approaches
like
CRISPR-Cas9
can
applied
editing
cutting
specific
genes
responsible
VOCs,
NOx,
SOx,
harmful
hydrocarbons.
extracted
then
expressed
in
biologically
modified
microorganisms
enhanced
Language: Английский
Bioremediation of Smog: Current Trends and Future Perspectives
Isha Isha,
No information about this author
Shakir Ali,
No information about this author
Ammara Khalid
No information about this author
et al.
Processes,
Journal Year:
2024,
Volume and Issue:
12(10), P. 2266 - 2266
Published: Oct. 17, 2024
Air
pollution
has
become
one
of
the
biggest
problems
throughout
world.
Smog
a
severe
effect
on
pulmonary
and
circulatory
systems,
which
causes
significant
number
deaths
globally.
Therefore,
remediation
air
pollutants
to
maintain
ecosystem
processes
functions
improve
human
health
is
crucial
problem
confronting
mankind
today.
This
review
aims
discuss
effects
smog
humans.
will
also
focus
bioremediation
(smog)
using
bacteria,
fungi,
phytoremediation,
nanotechnology,
phylloremediation
(using
plants
microbes).
Phylloremediation
most
effective
technology
for
removing
naturally.
The
future
perspective
presents
great
need
produce
an
where
microbes,
plants,
nanoparticles
synergistically
control
smog.
In
addition,
further
advancements
would
be
needed
modify
genetic
makeup
microbes
plants.
Biotechnological
approaches
like
CRISPR-Cas9
can
applied
editing
cutting
specific
genes
responsible
VOCs,
NOx,
SOx,
harmful
hydrocarbons.
extracted
then
expressed
in
biologically
modified
microorganisms
enhanced
Language: Английский