Advanced NanoBiomed Research,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 1, 2024
Nanoarchitectonics,
as
a
post‐nanotechnology
concept,
represents
methodology
for
the
construction
of
functional
materials
employing
atoms,
molecules,
and
nanomaterials
essential
components.
The
overarching
objective
nanoarchitectonics
is
to
develop
systems
comprising
multiple
units
assembled
in
hierarchical
manner,
observed
biological
systems.
Nevertheless,
such
challenging
endeavor.
It
would
be
prudent,
therefore,
initially
focus
on
development
that
interact
with
complex
structures
living
organisms.
Accordingly,
this
review
article
addresses
topic
nanoarchitecture
it
pertains
biomedical
applications.
This
examines
current
trends
research
presents
examples
studies
support
concept
its
applications
fields.
presented
are
follows:
i)
molecular
developments,
which
mainly
based
design
assembly;
ii)
material
examples,
using
components;
iii)
porous
materials,
will
summarized
under
heading
pore‐engineered
due
their
special
structure.
Finally,
provides
an
overview
these
discusses
future
prospects.
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 11, 2025
In
recent
years,
heterostructures
composed
of
two-dimensional
(2D)
materials
have
demonstrated
broad
application
prospects
across
various
domains,
primarily
attributed
to
their
exceptional
electrical
and
optical
properties.
The
superior
performance
these
is
rooted
in
the
interlayer
interactions
diversity
constituent
materials.
Notably,
applications
been
greatly
advanced
fields
such
as
photodetectors,
lasers,
modulators,
sensors,
nonlinear
optics.
etc.
This
review
delineates
advancement
based
on
2D
discusses
electronic
structural
properties
interfaces
band
alignments
while
summarizing
carrier
dynamics
characteristics.
Furthermore,
it
explores
synthesis
techniques
saturable
absorbers
laser
Q-switching
mode-locking,
emphasizing
critical
role
that
type-I
type-II
heterojunctions
played
advancing
technology.
Lastly,
challenges
future
opportunities
technologies
are
reviewed,
offering
insights
potential
directions
for
further
research
this
field.
Diabetic
foot
ulcers/chronic
wounds
are
difficult
to
treat
because
of
dysfunctional
macrophage
response
and
decreased
phenotype
transition
from
the
M1
M2
status.
This
causes
severe
inflammation,
less
angiogenesis,
microbial
infections,
small
deformation
in
wound
beds,
affecting
healing
process.
The
commercial
dressing
material
has
limited
efficacy,
poor
mechanical
strength,
extra
pain,
new
granulated
tissue
formed
a
mesh
gauze.
It
is
desired
create
tough,
skin-adhesive,
antifouling,
sustainable
phenotype-enabling,
mechanoresponsive
drug-releasing
hydrogel.
To
resolve
this,
zwitterionic
poly(sulfobetaine
methacrylate)
(SB)
incorporated
with
keratin-exfoliated
MoS
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(43), P. 29930 - 29941
Published: Oct. 18, 2024
Photodynamic
therapy
(PDT)
has
emerged
as
a
preferred
nonsurgical
treatment
in
clinical
applications
due
to
its
capacity
selectively
eradicate
diseased
tissues
while
minimizing
damage
normal
tissue.
Nevertheless,
efficacy
is
constrained
by
the
limited
penetration
of
visible
light.
Although
near-infrared
(NIR)
lasers
offer
enhanced
tissue
penetration,
dearth
suitable
photosensitizers
and
pronounced
imaging-treatment
disparity
pose
challenges.
Additionally,
implementation
via
optical
fiber
implantation
carries
infection
risks
necessitates
minimally
invasive
surgery,
contradicting
PDT's
noninvasive
advantage.
In
this
study,
we
introduce
brilliant
approach
utilizing
aggregation-induced
emission
luminogens
(AIEgen)
develop
visible-light
penetrator
(VLP),
coupled
with
wireless
light
emitting
diodes
(LEDs),
enabling
deep
photodynamic
therapy.
We
validate
therapeutic
inaccessible
conventional
PDT,
demonstrating
significant
suppression
inflammatory
diffusion
vivo
using
AIEgen
TBPPM
loaded
within
VLP,
which
exhibits
transmittance
86%
thickness
3
mm.
This
innovative
effectively
overcomes
substantial
limitations
PDT
settings
holds
promise
for
advancing
phototherapy.
Journal of drug targeting,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 23
Published: Nov. 18, 2024
Glioblastoma
multiforme
(GBM),
the
most
aggressive
form
of
brain
cancer,
poses
substantial
challenges
to
effective
treatment
due
its
complex
and
infiltrative
nature,
making
it
difficult
manage.
Photodynamic
therapy
(PDT)
sonodynamic
(SDT),
have
emerged
as
promising
individual
options
against
GBM
their
least-invasive
approach.
However,
both
PDT
SDT
drawbacks
that
require
careful
consideration.
A
combination
using
light
sound
waves
has
gained
attention,
offering
new
avenues
overcome
from
therapies.
Sono-photodynamic
(SPDT)
been
used
various
tumors.
Researchers
are
considering
SPDT
a
favorable
alternative
conventional
therapies
for
GBM.
offers
complementary
mechanisms
action,
including
production
ROS,
disruption
cellular
structures,
induction
apoptosis,
leading
enhanced
tumor
cell
death.
This
review
gives
an
insight
about
PDT/SDT
limitations
in
need
therapy.
We
try
unveil
process
explore
mechanism
behind
improved
SPDT-meditated
death
cells
by
focusing
on
ROS-mediated
response
occurring
result
discussing
current
modifications
existing
sensitizers
optimal
use
Journal of the American Chemical Society,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 20, 2024
Treatment
of
glioblastoma
(GBM)
remains
challenging
due
to
the
presence
blood-brain
barrier
(BBB)
and
tumor
heterogeneity.
Herein,
Au
nanosheets
(AuNSs)
functionalized
with
RGD
peptides
small
interfering
RNA
(siRNA),
referred
as
AuNSs-RGD-C≡C-siRNA
(ARCR),
are
prepared
achieve
multimodal
therapy
for
GBM.
The
AuNSs
a
large
modifiable
surface
area,
intriguing
photothermal
conversion
efficiency
(50.26%),
remarkable
stability
(44
cycles
over
7
h)
created
using
well-designed
amphiphilic
surfactant.
Furthermore,
alkynyl
groups
assembled
onto
within
1
min,
enabling
strong
covalent
binding
siRNA
thereby
avoiding
interference
from
biological
thiols.
Owing
lipophilicity
surfactant
targeting
property
RGD,
ARCR
effectively
passes
through
BBB
accumulates
in
GBM
regions,
allowing
near-infrared
photoacoustic
imaging-guided
photothermal/gene
therapy.
This
work
proposes
facile
strategy
construct
theranostic
Au-based
materials,
highlighting
potential
multifunctional
nanoagents
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 5, 2025
Dendrimers
are
branched
macromolecular
structures
that
useful
nanocarriers
for
small-molecule
drugs,
such
as
cancer
therapeutics.
Their
small
size
permits
penetration
into
solid
tumors,
coupled
with
functionalization
a
low-fouling
PEG
coating
minimizes
transient
cellular
interactions
and
enhances
plasma
circulation
time.
While
PEGylated
dendrimers
show
significant
promise
anticancer
therapeutics,
there
is
potential
to
increase
tumor
cell
specificity
drive
uptake
of
drugs
cells
by
conjugating
cell-targeting
ligands
onto
the
dendrimers.
To
achieve
this,
we
used
an
expanded
genetic
code
bio-orthogonal
click
chemistry
functionalize
monomethyl
auristatin
E
(MMAE)-loaded
single
nanobody
per
dendrimer.
The
uniform
addition
ligand
facilitated
greater
intracellular
drug
payload
HER2-positive
target
cells,
while
preserving
desirable
circulatory
characteristics
nanobody–dendrimer
conjugates
similar
levels
infiltration
over
24
h
compared
unmodified
dendrimers,
targeted
had
significantly
inhibition
growth
long-term
retention
in
tumors.
Our
results
highlight
biodistribution
studies
alone
poor
predictors
therapeutic
performance.
controlled
conjugation
strategy
presented
here
preserves
advantage
tissue
maximizing
potency
difficult-to-access
tissue.
Infectious
bone
defects
pose
significant
challenges
in
orthopedic
practice,
marked
by
persistent
bacterial
infection
and
ongoing
inflammatory
responses.
Recent
advancements
tissue
engineering
have
led
to
the
development
of
biomaterials
with
both
antibacterial
properties
ability
promote
regeneration,
offering
new
solutions
these
complex
issues.
Black
phosphorus
nanosheets
(BPNS),
a
unique
two-dimensional
material,
demonstrate
exceptional
biocompatibility,
bioactivity,
properties.
Their
combination
osteogenic,
antibacterial,
anti-inflammatory
effects
positions
BPNS
as
an
ideal
candidate
for
addressing
complicated
infection.
This
Review
explores
potential
BPNS-based
composite
repairing
infectious
defects,
discussing
their
molecular
mechanisms
activity,
including
intrinsic
properties,
photothermal
therapy
(PTT),
photodynamic
(PDT),
drug
delivery.
The
application
treating
through
hydrogels,
scaffolds,
coatings,
fibers,
is
also
discussed.
emphasizes
transformative
role
advocates
continued
research
this
promising
field.