Pharmaceutics,
Год журнала:
2024,
Номер
16(10), С. 1258 - 1258
Опубликована: Сен. 27, 2024
Most
of
the
therapeutic
systems
developed
for
managing
chronic
skin
wounds
lack
adequate
mechanical
and
hydration
properties,
primarily
because
they
rely
on
a
single
component.
This
study
addresses
this
issue
by
combining
organic
inorganic
materials
to
obtain
hybrid
films
with
enhanced
behavior,
adhesion,
fluid
absorption
properties.
To
that
aim,
chitosan/hydrolyzed
collagen
blends
were
mixed
halloysite/antimicrobial
nanohybrids
at
10%
20%
(
European Polymer Journal,
Год журнала:
2024,
Номер
215, С. 113243 - 113243
Опубликована: Июль 1, 2024
Osteoarthritis
(OA)
is
a
well-known
degenerative
joint
disease
recognized
by
the
deterioration
of
cartilage
in
joints,
leading
to
pain
and
reduced
mobility.
Traditional
treatments
for
OA
include
management,
physical
therapy,
severe
cases,
replacement
surgery.
In
recent
years,
there
has
been
growing
interest
exploring
potential
phytoconstituents
nanomedicines
combined
treating
OA.
Furthermore,
with
increasing
amount
study
this
field,
now
opportune
time
widespread
use
plant-derived
medications
as
complementary
alternative
medical
therapies
be
acknowledged
used
more
efficient
treatment
human
ailments
like
Combining
nanomedicine
technology
(phyto-nanomedicine)
can
potentially
enhance
their
effectiveness
The
phyto-nanomedicines
many
advantages,
including
enhanced
permeability,
increased
bioavailability,
sustained/controlled
drug
release
at
site,
decreased
adverse
effects,
possible
combination
treatment.
It's
important
note
that
while
promising
preclinical
some
clinical
evidence
regarding
phyto-nanomedicine
treatment,
further
research
needed
establish
safety
efficacy
conclusively.
review,
treat
combining
phytomedicines
nanoparticulate
delivery
former
therapeutic
discussed
detail.
we
have
also
described
briefly
on
application
organ-on-chip
and/or
on-chip
models
accelerate
identification
novel
evaluate
potency
Journal of Cellular Plastics,
Год журнала:
2025,
Номер
unknown
Опубликована: Март 19, 2025
Nanocomposite
sponges
or
foams
have
been
established
as
three
dimensional
progressive
nanomaterials.
This
review
article
fundamentally
précises
the
design
and
advancements
in
field
of
essential
three-dimensional
nanocomposite
nanostructures.
The
nanocarbons
carbonaceous
nanoparticles
(graphene,
carbon
nanotube,
etc.)
well
inorganic
fabricated
using
facile
practices
such
hydrothermal,
freeze-drying,
infiltration,
hot
pressing,
foaming,
others.
Particularly,
literature
reports
on
combination
mostly
with
thermoplastic
polymeric
matrices
(polyurethane,
poly
(vinyl
alcohol),
polycaprolactone),
thermoset
(epoxy),
conducting
polymers
to
form
efficient
sponges.
Consequently,
high
performance
nanocellular
developed
hierarchical
nanostructure,
fine
nanofiller
scattering,
interface
formation,
matrix-nanofiller
interactions.
Ensuing
revealed
exclusive
shape
memory
responses
addition
indispensable
structural
physical
features
(high
surface
area,
flexibility,
porosity,
conductivity,
heat,
mechanical
robustness).
These
emergent
stimuli
responsive
cellular
materials
exposed
high-tech
potential
towards
supercapacitors,
sensors,
electromagnetic
interference
shielding
devices/materials.
Here,
own
various
merits,
like
low
density,
reversible
deformability,
sustainability,
external
regulated
device
functioning,
relative
traditional
planar
structured
energy/electronic
devices.
In
this
way,
properties
further
enhanced
marvelous
characteristics
Above
all,
sponge
based
devices
next
level
extended
life
spans
relying
upon
key
factors,
deformations,
revocable
fatigue,
easily
recoverable
cracks/damages,
compared
non-responsive
Environmental Technology,
Год журнала:
2025,
Номер
unknown, С. 1 - 17
Опубликована: Март 27, 2025
Hydrogen
gas
(H2)
is
a
promising
renewable
resource,
and
its
production
from
organic
waste
has
gained
significant
attention
as
an
alternative
to
traditional
energy
sources.
This
study
investigates
hydrogen
cassava
industry
residue
(CWR)
by
incorporating
hydrochar-supported
nanoparticles
(HSNPs)
containing
nickel
(Ni)
iron
(Fe)
(NPs).
Ni
Fe2O3
NPs
were
synthesised
through
the
hydrothermal
carbonisation
(HTC)
method
analyzed
for
their
impact
on
biohydrogen
production.
The
results
indicated
maximum
volumetric
rate
of
1013
mL/gCWR,
with
substrate
degradation
efficiency
80%.
Addition
0.5
mol
Ni-Fe2O3
hydrochar
was
found
be
optimal
which
enhanced
overall
cumulative
41.015%,
higher
COD
removal
90%
obtained
compared
without
additives.
toxicity
assessed
bacterial
viability,
examined
various
loading
concentrations
in
glucose
medium.
findings
revealed
that
supplementing
NiO
within
range
CWR
can
significantly
improve
productivity.
Additionally,
HSNPs
enhance
hydrogenase
activity
electron
transfer
efficiency,
are
beneficial
bio-H2
evolution.
However,
excessive
HSNP
addition
may
toxic
microbes
further
inhibit
H2
presents
effective
promoting
evolution
gas.
