Soil, air, and water pollution from mining and industrial activities: sources of pollution, environmental impacts, and prevention and control methods
Mohsen Moghimi Dehkordi,
No information about this author
Zahra Pournuroz Nodeh,
No information about this author
Kamran Soleimani Dehkordi
No information about this author
et al.
Results in Engineering,
Journal Year:
2024,
Volume and Issue:
23, P. 102729 - 102729
Published: Aug. 15, 2024
Language: Английский
Harnessing microbial division of labor for biomanufacturing: a review of laboratory and formal modeling approaches
Critical Reviews in Biotechnology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 19
Published: Feb. 19, 2025
Bioprocess
industries
aim
to
meet
the
increasing
demand
for
product
complexity
by
designing
enhanced
cellular
and
metabolic
capabilities
host.
Monocultures,
standard
biomanufacturing
workhorses,
are
often
restricted
in
their
capability
these
demands,
solution
involves
genetic
modification
of
Synthetic
microbial
communities
a
promising
alternative
monocultures
because
they
exhibit
division
labor,
enabling
efficient
resource
utilization
pathway
modularity.
This
specialization
minimizes
burden
enhances
robustness
perturbations,
providing
competitive
advantage.
Despite
this
potential,
biotechnological
or
bioprocessing
applications
remains
limited.
The
recent
emergence
new
innovative
community
design
tools
strategies,
particularly
those
harnessing
holds
promise
change
outlook.
Understanding
interactions
governing
natural
can
be
used
identify
complementary
partners,
informing
synthetic
design.
Therefore,
we
consider
engineering
labor
as
viable
accelerate
progress
field.
review
presents
current
understanding
how
enable
information
perform
tasks
otherwise
unfeasible
individual
organisms.
We
then
evaluate
laboratory
formal
modeling
approaches
specifically
developed
to:
elucidate
physiology,
guide
experimental
design,
improve
our
complex
assisting
By
synthesizing
insights,
present
comprehensive
framework
that
advances
use
applications.
Language: Английский
Transformative strategies for saline soil restoration: Harnessing halotolerant microorganisms and advanced technologies
Sheeba Santhosh,
No information about this author
S. Meena,
No information about this author
M. Baskar
No information about this author
et al.
World Journal of Microbiology and Biotechnology,
Journal Year:
2025,
Volume and Issue:
41(5)
Published: April 28, 2025
Language: Английский
A Review of Visible Light Responsive Photocatalysts for Arsenic Remediation in Water
Photochem,
Journal Year:
2024,
Volume and Issue:
4(2), P. 198 - 218
Published: April 17, 2024
This
review
summarizes
the
progress
over
last
fifteen
years
in
visible
light
reactive
photocatalysts
for
environmental
arsenic
remediation.
The
design
and
performance
of
several
materials
including
(1)
doped
surface
functionalized
TiO2,
(2)
binary
composites
combining
TiO2
with
another
semiconductor
that
absorbs
radiation
or
a
metal
(Pt),
(3)
ternary
incorporating
conductive
polymer
can
retard
electron-hole
recombination
an
excellent
adsorbent
material
removal
As(V),
(4)
tungsten,
zinc,
bismuth
oxides,
(5)
g-C3N4
based
catalysts,
(6)
M@AgCl
core–shell
structures.
These
results
show
long
reaction
time
remains
major
challenge
achieving
high
As(III)
oxidation.
Language: Английский
Arsenic Contamination in Sludge and Sediment and Relationship with Microbial Resistance Genes: Interactions and Remediation
Menglong Xing,
No information about this author
Dajiang Yan,
No information about this author
Mengmeng Hai
No information about this author
et al.
Water,
Journal Year:
2024,
Volume and Issue:
16(24), P. 3633 - 3633
Published: Dec. 17, 2024
Arsenic
contamination
in
sludge
and
sediment
has
emerged
as
a
pressing
environmental
issue
with
far-reaching
implications.
This
review
delves
into
the
multifaceted
problem
of
arsenic
contamination,
focusing
on
its
complex
interactions
microbial
resistance
genes
(MRGs).
It
explores
key
role
microorganisms
biogeochemical
cycling
arsenic,
including
processes
such
reduction,
oxidation,
methylation,
volatilization.
describes
how
resist
through
that
encode
proteins
efflux
pumps,
enzymatic
detoxification,
intracellular
sequestration.
Arsenic,
naturally
occurring
element,
can
enter
various
natural
anthropogenic
pathways,
leading
to
detrimental
effects
quality.
Understanding
mobilization,
transformation,
their
ability
toxicity
MRGs
is
essential
for
effective
mitigation
remediation
strategies.
discusses
sources
distribution
sediment,
intricate
mechanisms
resistance,
potential
implications
management
human
health.
also
examines
current
research
trends
identifies
areas
requiring
further
investigation.
By
unraveling
interplay
between
microorganisms,
MRGs,
this
aims
contribute
deeper
understanding
guide
future
protection
efforts.
Language: Английский
“Strategies for microbes-mediated arsenic bioremediation: Impact of quorum sensing in the rhizosphere”
Basudev Majhi,
No information about this author
Pradeep Semwal,
No information about this author
Shashank Kumar Mishra
No information about this author
et al.
The Science of The Total Environment,
Journal Year:
2024,
Volume and Issue:
956, P. 177321 - 177321
Published: Nov. 8, 2024
Language: Английский
Factors and Mechanisms Affecting Arsenic Migration in Cultivated Soils Irrigated with Contained Arsenic Brackish Groundwater
Wenjing Dai,
No information about this author
Rongguang Shi,
No information about this author
Xiaodong Li
No information about this author
et al.
Microorganisms,
Journal Year:
2024,
Volume and Issue:
12(12), P. 2385 - 2385
Published: Nov. 21, 2024
Contained
arsenic
(As)
and
unsafe
brackish
groundwater
irrigation
can
lead
to
serious
As
pollution
increase
the
ecological
risk
in
cultivated
soils.
However,
little
is
known
about
how
Fe
oxides
microbes
affect
migration
during
soil
processes
involving
arsenic-contaminated
groundwater.
In
this
study,
samples
(porewater
soil)
were
collected
through
dynamic
column
experiments
explore
process
its
effect
factors
irrigation.
The
results
showed
that
concentration
porewater
from
topsoil
was
enriched
compared
subsoil,
main
solid
fractions
strongly
adsorbed
or
bound
amorphous
crystalline
oxides.
aqueous
indicated
reductive
dissolution
desorption
primary
mechanisms
of
release
at
respectively.
Meanwhile,
Sphingomonas_sp.,
Microvirga_ossetica
Acidobacteriota_bacterium
dominant
affecting
biotransformation
by
arsenate
reductase
gene
(arsC)
expression.
Accompanied
Eh
competitive
ions
change,
oxide
increased
facilitate
release,
changes
microbial
community
structure
related
reduction
may
have
enhanced
mobilization
soils
irrigated
As-containing
Language: Английский
Characterization and exploration of an As(III)-oxidizing bacterium TMKU1 for plant growth promotion under arsenic stress
The Microbe,
Journal Year:
2024,
Volume and Issue:
3, P. 100082 - 100082
Published: May 8, 2024
Arsenic
(As)
pollution
has
been
recognized
as
a
serious
global
environmental
problem.
Though
various
remediation
strategies
are
being
explored
to
cope
up
with
the
As-toxicity,
currently
microbe-assisted
detoxification
of
As
is
found
be
most
promising
technique
for
restoring
As-contaminated
rhizosphere
soil
its
eco-friendly
nature.
As(III)-oxidizing
bacteria
were
reported
suitable
in
this
regard.
In
study,
an
bacterium,
TMKU1
was
isolated
from
rhizospheric
that
could
withstand
20
mM
As(III)
and
95
As(V).
The
strain
closely
related
genus
Acinetobacter,
according
16
S
rDNA
analysis.
transform
~70%
As(V)
under
aerobic
culture
condition.
transformation
catalyzed
by
arsenite
oxidase,
which
constitutive
nature
strain.
As(III)-oxidase
encoded
functional
gene
aioA
harbored
on
genomic
DNA.
enzyme
localized
mostly
periplasm,
partially
purified
showed
Km
=
95.76667
μM
Vmax
0.356341
M
min-1g-1
protein.
novelty
it
express
plant
growth
promoting
features
like
phosphate
solubilization,
siderophore
production,
IAA
production
N2-fixation,
both
stress-free
As-stress
conditions.
Seed
bacterization
not
only
significantly
increased
germination
chickpea
seeds,
but
also
shielded
seedlings
toxicity
accumulation.
Overall,
results
suggest
bacterial
candidate
would
potential
use
agricultural
practices
crop
field.
Language: Английский
Enhancing Physico-Chemical Water Quality in Recycled Dairy Effluent through Microbial Consortium Treatment
Heliyon,
Journal Year:
2024,
Volume and Issue:
10(21), P. e39501 - e39501
Published: Oct. 20, 2024
The
dairy
industry,
notorious
by
generating
wastewater
rich
in
organic
and
nitrogenous
content,
necessitates
sustainable
recycling
solutions.
Biological
treatment
emerges
as
a
cost-effective
chemical-free
alternative.
This
study
delves
into
the
potential
of
microbial
consortium,
for
effluent,
aiming
at
water
reclamation
environmental
sustainability.
Effluent
samples
from
Madurai's
Dairy
Industry
underwent
consortium
prototype,
with
efficacy
assessed
through
physicochemical
parameters
contaminant
removal
efficiency.
Guided
biodegradability
index
4.51,
showcased
EM's
impact,
revealing
notable
decrease
pH
levels,
fostering
an
alkaline
environment
(2.35
±
0.06
ppt).
Dissolved
oxygen
increased
significantly
to
4.50
ppm,
indicating
improved
aerobic
conditions.
EM
led
substantial
reductions
calcium
(53
%),
magnesium
(95
nitrogen
(22
sulfate
(79
phosphate
(86
BOD
(78
COD
(82
%).
In
contrast,
effluent
treated
without
during
sludge
activation
process
exhibited
negligible
quality
improvement.
These
findings
underscore
advancing
biological
demonstrating
significant
reduction
contaminants
showcasing
its
reclamation.
Improved
alkalinity,
dissolved
oxygen,
nutrient
content
further
signify
positive
impacts
on
ecosystem
health.
Microbial
promising
avenue
offering
economically
viable
environmentally
friendly
solution.
emphasizes
crucial
role
treatments
achieving
efficient
reclamation,
contributing
cleaner
environment.
Future
research
broader
implementation
industry
management
are
recommended
enhanced
benefits.
Language: Английский
Emerging roles of N6-methyladenosine in arsenic-induced toxicity
Rui Li,
No information about this author
Cuixia Wu,
No information about this author
Yu‐Wan Zhao
No information about this author
et al.
Heliyon,
Journal Year:
2024,
Volume and Issue:
10(22), P. e40473 - e40473
Published: Nov. 1, 2024
Arsenic
can
cause
extensive
toxic
damage
after
entering
the
body
of
humans
and
animals
by
altering
a
variety
events.
As
most
common
form
methylation
modification
RNA
in
eukaryotic
cells,
N
Language: Английский