International Journal of Molecular Sciences,
Journal Year:
2024,
Volume and Issue:
25(17), P. 9671 - 9671
Published: Sept. 6, 2024
The
presence
of
organic
dyes
in
aqueous
environments
is
extremely
hazardous
to
life
due
the
toxicity
these
compounds.
Thus,
its
removal
from
various
aquatic
media
utmost
importance,
and
several
technologies
are
constantly
being
tested
meet
this
goal.
Among
technologies,
types
degradation
adsorption
techniques
typically
used,
materials
used
within
nanomaterials
developed
investigated,
likely
properties
that
have.
This
work
reviewed
recent
developments
(in
2023)
about
use
treatment
solutions
contaminated
with
toxic
dyes.
ChemEngineering,
Journal Year:
2023,
Volume and Issue:
7(6), P. 104 - 104
Published: Nov. 2, 2023
Biodegradable
poly(ɛ-caprolactone)
(PCL)
and
its
composites
or
blends
have
received
a
lot
of
attention
in
the
last
decade
because
their
potential
applications
human
life
environmental
remediation.
Greater
efforts
been
made
to
develop
biodegradable
chemical
materials
as
adsorbents
that
do
not
pollute
environment
order
replace
traditional
materials.
Among
numerous
types
degradable
materials,
PCL
is
currently
most
promising,
popular,
best
material
be
developed,
it
referred
“green”
eco-friendly
material.
Membranes
for
water
treatment,
packaging
compost
bags,
controlled
drug
carriers,
biomaterials
tissues
such
bone,
cartilage,
ligament,
skeletal
muscle,
skin,
cardiovascular
nerve
are
just
some
this
polymer
(PCL).
The
goal
review
present
brief
overview
PCL,
syntheses
properties,
composites,
provide
detailed
investigation
into
utility
PCL/PCL-based
adsorbing
agents
removal
dyes/heavy
metal
ions.
Overall,
can
confirmed
were
found
significant
competitors
other
well-known
treatment
wastewaters,
necessitating
thorough
manufacture.
Chemical Physics Impact,
Journal Year:
2024,
Volume and Issue:
8, P. 100630 - 100630
Published: May 9, 2024
One
of
the
world's
most
important
challenges
is
lack
access
to
clean
water,
and
researchers
are
working
tirelessly
find
a
solution.
Nanotechnology-treated
water
superior
conventionally
treated
since
it
contains
no
hazardous
microorganisms
or
organic
dyes.
In
this
study,
influence
light
on
Ag3VO4
nanocomposites
doped
with
synthesized
ZnO
nanoparticles
was
analyzed.
SEM,
FTIR,
XRD,
XPS,
UV-vis
spectroscopy
were
just
some
methods
used
characterize
as-prepared
nanocomposites.
An
Ag3VO4/ZnO
nanocomposite
successfully
adsorb
photodegrade
Acid
Green-16(AG-16),
Red-72(AR-72)
from
an
aqueous
Visible
dramatically
accelerates
adsorption
photodegradation
compared
complete
darkness.
77.52%,
82.86%,
89.56%
AG-16
77.11%,
82.74%,
87.91%
AR-72
removed
by
ZnO,
Ag3VO4,
nanocomposites,
respectively,
in
less
than
60
minutes.
However,
visible-light
more
successful
alone
removing
AR-72.
pioneering
we
assess
catalytic
performance
newly
incorporated
for
UV-assisted
degradation
Our
study
presents
innovative
catalyst
system
that
exhibits
improved
efficiency
holds
promise
implementation
environmentally
sustainable
wastewater
treatment
methods.
Nanotechnology,
Journal Year:
2024,
Volume and Issue:
35(47), P. 475401 - 475401
Published: Aug. 21, 2024
The
objective
of
this
study
is
to
develop
an
efficient,
easily
recoverable
membrane-based
photocatalyst
for
removing
organic
pollutants
from
aqueous
solutions.
This
documents
the
effective
synthesis
a
novel
composite
comprising
WO
Environmental Quality Management,
Journal Year:
2024,
Volume and Issue:
34(3)
Published: Dec. 25, 2024
ABSTRACT
Nickel
cobalt
tungstate
(Ni
(1‐X)
Co
X
WO
4
)
nanocomposites
with
varying
amounts
of
(X
=
0.0,
0.3,
0.5,
0.7,
and
1.0)
are
the
focus
this
investigation
into
photocatalytic
effectiveness.
Finding
ways
to
improve
these
for
use
in
photocatalysis
is
primary
goal
study.
Several
methods
were
used
analyze
nanocomposites,
such
as
field
emission
scanning
electron
microscope
(FESEM),
high
resolution
transmission
microscopy
(HRTEM),
x‐ray
diffraction
(XRD),
Fourier
transform
infrared
(FTIR),
UV‐Vis,
photoelectron
spectroscopy
(XPS),
Raman
spectroscopy.
Using
nickel
),
adsorption
photodegradation
acid
red
(AR)
green
(AG)
from
a
solution
including
water
accomplished
success.
When
exposed
visible
light,
nanocomposite
shows
increased
rates
compared
its
behavior
when
no
light
present.
With
an
impressive
rate
89.54%
AG
removal
87.16%
AR
less
than
60
min,
compound
showed
great
potential.
it
comes
fighting
outperforms
adsorption.
This
work
presents
unique
approach
evaluating
performance
cobalt.
The
results
may
shed
on
how
materials
energy
environmental
protection.
Contributing
important
information
creation
more
efficient
personalized
materials,
research
analyzes
influence
content
novel
way.
