Applied Water Science,
Journal Year:
2023,
Volume and Issue:
13(11)
Published: Nov. 1, 2023
Abstract
Fluoride
and
nitrate
are
one
of
the
developed
compounds
that
can
enter
water
resources
in
different
ways.
The
present
research
examines
effectiveness
activated
carbon
made
from
oak
fruit
to
remove
fluoride
water,
then
as-synthesized
adsorbent
is
functionalized
using
ammonium
chloride
species.
results
showed
carbon-containing
NH
4
Cl
had
highest
adsorption
capacity
for
pollutant.
maximum
absorbing
26.00
mg/g
26.53
nitrate.
reaction
kinetics
isotherms
pseudo-second-order
Freundlich
isotherm
fit
data
this
study
better
than
other
experimental
models.
Eventually,
recycling
seven
cycles
adsorb
pollutant
no
remarkable
activity
loss.
Until
now,
most
absorption
methods
have
been
performed
concentration
30
mg/l.
In
current
study,
with
input
50
mg/l,
it
be
mentioned
modified
a
cheap,
efficient,
effective
adsorbent.
It
considered
available
aqueous
solutions.
Nanoscale Advances,
Journal Year:
2024,
Volume and Issue:
6(14), P. 3612 - 3623
Published: Jan. 1, 2024
The
primary
objective
of
this
investigation
was
to
develop
a
new
nanocatalyst
that
could
produce
amides
by
oxidative
amidation
benzyl
alcohol,
thereby
reducing
its
environmental
harm.
Nanoscale Advances,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
An
effective
nanocomposite
comprising
a
metal–organic
framework
and
porous
polysulfonamide-sodium
alginate
(SA-PS)
was
developed
for
phenyl
triazole
production.
Advanced Sustainable Systems,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 10, 2025
Abstract
The
present
study
describes
the
synthesis
of
a
novel
ZnIn
2
S
4
/DFNS
(ZIS/DFNS)
through
hydrothermal
method,
featuring
spherical
morphology.
synthesized
DFNS
(dendritic
fibrous
nanosilica)
mesoporous
silica
spheres
display
distinctive
structure
and
uniform
distribution.
Characterization
ZIS/DFNS
nanocomposites
confirms
presence
ZIS
amorphous
SiO
.
material
exhibits
notable
optoelectronic
properties
charge
separation
by
forming
an
M‐S‐Si
(M
=
Zn,
In)
interface,
making
it
suitable
for
photocatalytic
hydrogen
production
under
visible
light.
20%ZIS/DFNS
nanocomposite
alone
achieves
generation
5770.54
µmol
g
−1
However,
when
combined
with
Pt
as
co‐catalyst,
significantly
increases
to
9887.84
over
5
h,
using
Na
SO
3
hole
scavenger.
This
enhancement
is
due
DFNS's
exceptional
light‐harvesting
ability,
which
results
from
multiple
light‐scattering
events,
well
efficient
dispersion
on
its
surface.
enhances
water
diffusion
interaction
active
catalytic
sites.
provides
perspective
developing
advanced
systems
integrating
nanomaterials,
possess
optimal
bandgap
3.1
eV
splitting,
DFNS,
known
high
capability
increased
surface
area.