Materials,
Journal Year:
2024,
Volume and Issue:
17(23), P. 5918 - 5918
Published: Dec. 3, 2024
Advances
in
nanotechnology
have
made
it
possible
to
observe
and
evaluate
structures
down
the
atomic
molecular
level.
The
next
step
development
of
functional
materials
is
apply
knowledge
sciences.
This
role
nanoarchitectonics,
which
a
concept
post-nanotechnology.
Nanoarchitectonics
defined
as
methodology
create
using
nanounits
such
atoms,
molecules,
nanomaterials
building
blocks.
very
general
not
limited
or
applications,
thus
nanoarchitecture
applied
many
fields.
In
particular,
evolution
from
nanoarchitecture,
useful
consider
contribution
device
applications.
There
may
be
solution
widely
recognized
problem
integrating
top-down
bottom-up
approaches
design
systems.
With
this
mind,
review
discusses
examples
nanoarchitectonics
developments
advanced
devices.
Some
recent
are
introduced
through
broadly
dividing
them
into
organic
inorganic
nanoarchitectonics.
Examples
include
variety
control
structural
elements,
π-conjugated
structures,
chemical
complex
ligands,
steric
hindrance
effects,
stacking,
isomerization
color
changes
due
external
stimuli,
selective
redox
reactions,
doping
semiconductors
by
electron
transfer
reactions.
Supramolecular
processes
association
intercalation
molecules
also
important
controlling
properties.
often
allows
for
size,
dimension,
shape,
their
associated
physical
properties
can
controlled.
addition,
there
specific
groups
that
suitable
practical
use,
nanoparticles
graphene.
Therefore,
has
more
aspect.
Based
on
these
aspects,
finally
considers
future
further
Materials,
Journal Year:
2025,
Volume and Issue:
18(3), P. 654 - 654
Published: Feb. 1, 2025
The
development
of
functional
materials
and
the
use
nanotechnology
are
ongoing
projects.
These
fields
closely
linked,
but
there
is
a
need
to
combine
them
more
actively.
Nanoarchitectonics,
concept
that
comes
after
nanotechnology,
ready
do
this.
Among
related
research
efforts,
into
creating
through
formation
thin
layers
on
surfaces,
molecular
membranes,
multilayer
structures
these
have
lot
implications.
Layered
especially
important
as
key
part
nanoarchitectonics.
diversity
components
used
in
layer-by-layer
(LbL)
assemblies
notable
feature.
Examples
LbL
introduced
this
review
article
include
quantum
dots,
nanoparticles,
nanocrystals,
nanowires,
nanotubes,
g-C3N4,
graphene
oxide,
MXene,
nanosheets,
zeolites,
nanoporous
materials,
sol–gel
layered
double
hydroxides,
metal–organic
frameworks,
covalent
organic
conducting
polymers,
dyes,
DNAs,
polysaccharides,
nanocelluloses,
peptides,
proteins,
lipid
bilayers,
photosystems,
viruses,
living
cells,
tissues.
examples
assembly
show
how
useful
versatile
it
is.
Finally,
will
consider
future
challenges
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 25, 2025
Abstract
Biopolymer‐based
hydrogels
offer
versatility
in
biomedical
engineering
due
to
their
abundance,
biocompatibility,
tailorable
properties,
and
environmental
responsiveness.
Realizing
full
potential
requires
understanding
the
molecular‐level
design
principles
that
govern
macroscopic
behavior.
This
review
analyzes
recent
advances
molecular
of
biopolymer‐based
hydrogels,
emphasizing
innovative
network
strategies
processing
methods
for
precise
control
over
material
properties
functions.
How
influences
hydrogel
behavior
across
multiple
length
scales
are
explored,
focusing
on:
1)
strategies:
approaches
like
double
networks,
interpenetrating
supramolecular
assemblies
tailor
mechanical
responsive
properties;
2)
techniques:
such
as
Hofmeister
effect‐induced
chain
aggregating,
cononsolvency‐based
porous
structure
controlling,
directional
freezing‐induced
alignment
achieve
hierarchical
anisotropic
structures.
these
influence
critical
strength,
inner
mass
transportation,
degradation
discussed.
The
also
covers
advanced
fabrication
techniques
leverage
create
complex,
functional
hydrogels.
By
elucidating
relationships
between
architecture,
methods,
resulting
this
work
aims
provide
a
framework
designing
next‐generation
with
enhanced
performance
functionality
various
applications.
Biomimetics,
Journal Year:
2025,
Volume and Issue:
10(1), P. 28 - 28
Published: Jan. 4, 2025
The
development
of
biocompatible
hydrogels
for
3D
bioprinting
is
essential
creating
functional
tissue
models
and
advancing
preclinical
drug
testing.
This
study
investigates
the
formulation,
printability,
mechanical
properties,
biocompatibility
a
novel
Alg-Gel
hydrogel
blend
(alginate
gelatin)
use
in
extrusion-based
bioprinting.
A
range
compositions
were
evaluated
their
rheological
behavior,
including
shear-thinning
storage
modulus,
compressive
which
are
crucial
maintaining
structural
integrity
during
printing
supporting
cell
viability.
printability
assessment
7%
alginate-8%
gelatin
demonstrated
that
27T
tapered
needle
achieved
highest
normalized
Printability
Index
(POInormalized
=
1),
offering
narrowest
strand
width
(0.56
±
0.02
mm)
accuracy
(97.2%)
at
lowest
pressure
(30
psi).
In
contrast,
30R
needle,
with
smallest
inner
diameter
(0.152
(80
psi),
resulted
widest
(0.70
0.01
(88.8%),
resulting
POInormalized
0.274.
30T
27R
needles
moderate
performance,
values
0.758
0.558,
respectively.
optimized
alginate
8%
favorable
strength,
compatibility
MDA-MB-213
breast
cancer
cells,
exhibiting
high
proliferation
rates
minimal
cytotoxicity
over
2-week
culture
period.
formulation
offers
balanced
approach,
providing
sufficient
viscosity
precision
while
minimizing
shear
stress
to
preserve
health.
work
lays
groundwork
future
advancements
bioprinted
models,
contributing
more
effective
tools
screening
personalized
medicine.
Chemical Science,
Journal Year:
2024,
Volume and Issue:
15(45), P. 18715 - 18750
Published: Jan. 1, 2024
The
construction
of
functional
structures
within
a
single
plane
still
has
lot
challenges.
This
review
article
will
help
us
find
new
groundbreaking
directions
in
lateral
nanoarchitectonics
toward
advanced
material
organization.
Nano-/microrobots
have
been
demonstrated
as
an
efficient
solution
for
environmental
remediation.
Their
strength
lies
in
their
propulsion
abilities
that
allow
active
“on-the-fly”
operation,
such
pollutant
detection,
capture,
transport,
degradation,
and
disruption.
Another
advantage
is
versatility,
which
allows
the
engineering
of
highly
functional
solutions
a
specific
application.
However,
latter
can
bring
complexity
to
applications;
versatility
dimensionality,
morphology,
materials,
surface
decorations,
other
modifications
has
crucial
effect
on
resulting
abilities,
compatibility
with
environment,
overall
functionality.
Synergy
between
decorations
its
projection
functionality
object
nanoarchitectonics.
Here,
we
scrutinize
nano-/microrobots
eyes
nanoarchitectonics:
list
general
concepts
help
assess
synergy
limitations
individual
procedures
fabrication
processes
operation
at
macroscale.
The
nanoarchitectonics
approached
from
microscopic
level,
focusing
dimensionality
through
nanoscopic
evaluating
influence
decoration
nanoparticles
quantum
dots,
moving
molecular
single-atomic
level
very
fine
tuning
presented
review
aims
lay
provide
overview
advanced
nano-/microrobot
remediation
beyond.
The
solution
to
societal
problems
such
as
energy,
environmental,
and
biomedical
issues
lies
in
the
development
of
functional
material
systems
with
capacity
address
these
problems.
In
course
human
development,
we
are
entering
a
new
era
which
nanostructure
control
is
considered
major
materials.
concept
nanoarchitectonics
particularly
significant
this
regard,
it
comprehensively
promotes
further
nanotechnology
its
fusion
materials
chemistry.
integration
nanoscale
phenomena
macroscopic
actions
imperative
for
practical
production
structural
precision.
This
review
focuses
on
dynamic
flow-assisted
nanoarchitectonics,
wherein
explore
organization
structures
by
external
mechanical
stimuli,
predominantly
fluid
flow.
then
proceeds
select
some
examples
divide
them
into
categories
purpose
discussion:
(i)
natural
flow,
(ii)
flow
or
stress
created
artificial
equipment
devices
(forced
flow),
(iii)
at
specific
field,
namely
interfaces,
that
is,
layer-by-layer
(LbL)
assembly
LB
method.
final
perspective
section
discusses
future
research
directions
requirements
nanoarchitectonics.
meaningful
effective
use
science
set
be
area
focus
future,
poised
play
role
achieving
objective.
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.
Nanoscale Horizons,
Journal Year:
2024,
Volume and Issue:
10(3), P. 460 - 483
Published: Nov. 22, 2024
Over
the
last
two
decades,
advancements
in
nanomaterials
and
nanoscience
have
paved
path
for
emergence
of
nano-medical
convergence
science,
significantly
impacting
healthcare.
In
our
review,
we
highlight
how
these
are
applied
various
biomedical
technologies
such
as
drug
delivery
systems,
bio-imaging
diagnostic
therapeutic
purposes.
Recently,
novel
inorganic
nanohybrid
drugs
been
developed,
combining
multifunctional
with
agents
(known
medicinal
nanoarchitectonics).
These
innovative
actively
utilized
cutting-edge
medical
treatments,
including
targeted
anti-cancer
therapy,
photo
radiation
immunotherapy.
This
review
provides
a
detailed
overview
current
development
status
nanoarchitectonics
explores
potential
future
directions
their
advancements.