Soft Matter,
Journal Year:
2023,
Volume and Issue:
19(5), P. 858 - 881
Published: Jan. 1, 2023
Geometric
frustration
offers
a
pathway
to
soft
matter
self-assembly
with
controllable
finite
sizes.
While
the
understanding
of
in
assembly
derives
almost
exclusively
from
continuum
elastic
descriptions,
current
challenge
is
understand
connection
between
microscopic
physical
properties
misfitting
"building
blocks"
and
emergent
behavior
at
mesoscale.
We
present
analyze
particle-based
description
what
arguably
best
studied
example
for
frustrated
assembly,
negative-curvature
ribbon
observed
both
assemblies
chiral
surfactants
shape-frustrated
nanoparticles.
Based
on
our
particle
model,
known
as
saddle
wedge
monomers,
we
numerically
test
shape
interactions
subunits
supra-particle
scale,
specifically
focussing
propagation
relaxation
inter-particle
strains,
role
extrinsic
ribbons
equilibrium
regime
width
selection.
Beyond
intuitive
misfit,
show
that
self-limitation
critically
dependent
range
cohesive
interactions,
larger
size
requiring
increasing
short-range
interparticle
forces.
Additionally,
demonstrate
non-linearities
arising
discrete
alter
self-limiting
due
strain-softening
shape-flattened
partial
yielding
highly
strained
bonds,
which
turn
may
give
rise
states
hierarchical,
multidomain
assembly.
Tracing
regimes
frustration-limited
specific
features
shapes
provides
necessary
guidance
translating
theory
size-programmable
into
design
intentionally-frustrated
colloidal
particles.
Coordination Chemistry Reviews,
Journal Year:
2023,
Volume and Issue:
480, P. 215025 - 215025
Published: Jan. 25, 2023
During
the
last
decade,
scientific
community
has
become
interested
in
hybrid
nanomaterials,
especially
ones
that
combine
gold
nanoparticles
with
a
second
functional
component.
In
this
context,
coordination
polymers
are
materials
possess
potential
advantages
over
conventional
inorganic
nanomaterials
and
organic
compounds
such
as
chemical
versatility,
easy
processability,
high
specific
area,
low
toxicity,
biodegradability
electronic
magnetic
functionalities
to
name
few.
manner,
wise
integration
of
Au
different
types
nanostructures
allowed
extending
scope
properties
applications
these
systems,
allowing
also
overcoming
some
limitations
for
certain
applications.
Therefore,
review,
we
discuss
reported
based
on
colloidal
exhibiting
either
physical
interest
(e.g.
ferromagnetism,
photo-magnetism,
spin
switching,
etc.)
or
electrocatalysis).
We
have
paid
particular
attention
enhanced
synergistic
effects
can
emerge
from
association.
Along
front,
thanks
their
improved
and/or
novel
properties,
promising
several
applications,
biomedicine,
catalysis,
magnetism
sensing.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(22), P. 14029 - 14049
Published: May 23, 2024
This
review
focuses
on
modern
scintillators,
the
heart
of
ionizing
radiation
detection
with
applications
in
medical
diagnostics,
homeland
security,
research,
and
other
areas.
The
conventional
method
to
improve
their
characteristics,
such
as
light
output
timing
properties,
consists
improving
material
composition
doping,
Advanced Materials,
Journal Year:
2021,
Volume and Issue:
34(10)
Published: Dec. 21, 2021
The
integration
of
bioactive
materials
(e.g.,
proteins
and
genes)
into
nanoparticles
holds
promise
in
fields
ranging
from
catalysis
to
biomedicine.
However,
it
is
challenging
develop
a
simple
broadly
applicable
nanoparticle
platform
that
can
readily
incorporate
distinct
biomacromolecules
without
affecting
their
intrinsic
activity.
Herein,
metal-phenolic
assembly
approach
presented
whereby
diverse
functional
be
assembled
water
by
combining
various
synthetic
natural
building
blocks,
including
poly(ethylene
glycol),
phenolic
ligands,
metal
ions,
macromolecules.
process
primarily
mediated
complexes
through
coordination
hydrophobic
interactions,
which
yields
uniform
spherical
(mostly
<200
nm),
while
preserving
the
function
incorporated
(siRNA
five
different
used).
functionality
demonstrated
cancer
cell
apoptosis,
RNA
degradation,
catalysis,
gene
downregulation
studies.
Furthermore,
resulting
used
as
blocks
for
secondary
engineering
superstructures
via
templating
cross-linking
with
ions.
bioactivity
versatility
potentially
streamlined
rational
design
future
materials.
Nature Physics,
Journal Year:
2022,
Volume and Issue:
18(10), P. 1248 - 1253
Published: Aug. 11, 2022
Abstract
The
first-order
phase
transition
between
two
tetrahedral
networks
of
different
density—introduced
as
a
hypothesis
to
account
for
the
anomalous
behaviour
certain
thermodynamic
properties
deeply
supercooled
water—has
received
strong
support
from
growing
body
work
in
recent
years.
Here
we
show
that
this
liquid–liquid
can
be
described
an
unentangled,
low-density
liquid
and
entangled,
high-density
liquid,
latter
containing
ensemble
topologically
complex
motifs.
We
first
reveal
distinction
rationally
designed
colloidal
analogue
water.
water
model
displays
well-known
anomalies
well
critical
point.
then
investigate
water,
employing
widely
used
molecular
models,
demonstrate
there
is
also
clear
topological
its
networks,
thereby
establishing
generality
observation,
which
might
have
far-reaching
implications
understanding
transitions
liquids.
Nanoscale,
Journal Year:
2022,
Volume and Issue:
14(39), P. 14385 - 14432
Published: Jan. 1, 2022
The
significant
advances
in
synthesis
and
functionalization
have
enabled
the
preparation
of
high-quality
nanoparticles
that
found
a
plethora
successful
applications.
unique
physicochemical
properties
can
be
manipulated
through
control
size,
shape,
composition,
surface
chemistry,
but
their
technological
application
possibilities
further
expanded
by
exploiting
emerge
from
assembly.
ability
to
assembly
not
only
is
required
for
many
real
applications,
allows
combination
intrinsic
opens
way
exploitation
complex
interplay,
giving
access
collective
properties.
Significant
knowledge
gained
over
past
few
decades
on
nanoparticle
made
it
possible
implement
growing
number
strategies
reversible
nanoparticles.
In
addition
being
interest
basic
studies,
such
broaden
range
applications
possibility
developing
innovative
devices
using
This
review
focuses
includes
theoretical
aspects
related
concept
reversibility,
an
up-to-date
assessment
experimental
approaches
applied
this
field
advanced
computational
schemes
offer
key
insights
into
mechanisms.
We
aim
provide
readers
with
comprehensive
guide
address
challenges
assembling
promote
Advanced Materials,
Journal Year:
2022,
Volume and Issue:
35(4)
Published: Aug. 3, 2022
The
scalable
synthetic
route
to
colloidal
atoms
has
significantly
advanced
over
the
past
two
decades.
Recently,
clusters
with
DNA-coated
cores
called
"patchy
clusters"
have
been
developed,
providing
a
directional
bonding
specific
angle
of
rotation
due
shape
complementarity
between
clusters.
Through
DNA-mediated
interlocking
process,
they
are
directly
assembled
into
low-coordination
structures,
such
as
cubic
diamond
lattices.
Herein,
significant
progress
in
recent
years
synthesis
patchy
and
their
assembly
experiments
simulations
is
reviewed.
Furthermore,
an
outlook
given
on
emerging
approaches
potential
applications
photonic
crystals,
metamaterials,
topological
insulators,
separation
membranes.
The Journal of Physical Chemistry C,
Journal Year:
2023,
Volume and Issue:
127(5), P. 2147 - 2159
Published: Jan. 26, 2023
Lattice
oxygen
redox
of
solid-state
material
hosts
is
an
emerging
observation
in
electrochemistry.
Toward
the
anodic
evolution
reaction
(OER)
water
electrolysis
with
sluggish
kinetics,
activation
lattice
alters
mechanism
profoundly,
either
facilitating
nucleophilic
attack
O–O
coupling
conventional
adsorbate
(AEM)
or
directly
triggering
participation
into
gaseous
O2
generation
via
oxygen-mediated
(LOM).
In-depth
understanding
at
molecular
level
further
provides
research
community
fundamental
guidelines
for
advanced
OER
catalyst
design.
Herein,
we
present
physicochemical
principles
correlation
between
band
alignment
and
preferential
mechanism.
The
recent
progress
about
key
roles
activity
improvement
then
comprehensively
discussed.
Finally,
propose
remaining
challenges
future
perspectives
potential
advancements
electrocatalysis.
Chemical Society Reviews,
Journal Year:
2023,
Volume and Issue:
52(16), P. 5684 - 5705
Published: Jan. 1, 2023
How
far
we
can
push
chemical
self-assembly
is
one
of
the
most
important
scientific
questions
century.
Colloidal
a
bottom-up
technique
for
rational
design
functional
materials
with
desirable
collective
properties.
Due
to
programmability
DNA
base
pairing,
surface
modification
colloidal
particles
has
become
fundamental
programmable
material
self-assembly.
However,
there
remains
an
ever-lasting
demand
regioselective
encoding
realize
assemblies
that
require
specific,
directional,
and
orthogonal
interactions.
Recent
advances
in
chemistry
have
enabled
control
over
formation
bonds
on
particle
surface.
In
particular,
structural
nanotechnology
provides
simple
yet
powerful
strategy
unique
addressability,
bringing
complexity
unprecedented
level.
this
review,
summarize
state-of-art
DNA-mediated
colloids,
focus
how
introduced
recognition
plays
crucial
role
structures.
This
review
highlights
advantages
DNA-based
improving
assembly,
outlines
challenges
opportunities
construction
more
complex
architectures
tailored
functionalities.