Royal Society of Chemistry eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 279 - 304
Published: April 4, 2025
Two-dimensional
(2D)
nanomaterials
are
applicable
in
almost
all
fields,
and
now
researchers
pushing
the
boundaries
towards
their
large-scale
application.
These
materials
fall
into
three
types:
van
der
Waals
layered
(e.g.
graphene,
hexagonal
boron
nitride,
black
phosphorus),
non-van
XBenes),
non-layered
β-boron).
The
thickness
of
these
varies
from
a
single
atom
layer
to
multiple
layers.
2D
show
alterations
physicochemical
properties
due
two-dimensional
quantum
confinement.
have
demonstrated
potential
application
energy
storage
conversion,
environmental
remediation,
biomedicine,
catalysis,
filtration,
many
other
fields.
Graphene,
first
known
nanomaterial,
has
found
applications
sectors.
Similarly,
metal
borides
energetic
materials,
superconductors,
electrode
materials.
Transition
dichalcogenides
MXenes
also
for
vast
range
applications.
Despite
remarkable
properties,
face
scalability
issues
biocompatibility.
This
chapter
delves
different
sector
along
with
biocompatibility
offers
comprehensive
understanding
nanomaterials,
gradual
progress
synthesis,
applications,
use
concerns
Chemical Reviews,
Journal Year:
2023,
Volume and Issue:
124(2), P. 318 - 419
Published: Dec. 6, 2023
Flexible
electronics
have
recently
gained
considerable
attention
due
to
their
potential
provide
new
and
innovative
solutions
a
wide
range
of
challenges
in
various
electronic
fields.
These
require
specific
material
properties
performance
because
they
need
be
integrated
into
variety
surfaces
or
folded
rolled
for
newly
formatted
electronics.
Two-dimensional
(2D)
materials
emerged
as
promising
candidates
flexible
unique
mechanical,
electrical,
optical
properties,
well
compatibility
with
other
materials,
enabling
the
creation
devices.
This
article
provides
comprehensive
review
progress
made
developing
devices
using
2D
materials.
In
addition,
it
highlights
key
aspects
scalable
production,
device
fabrication
processes
applications,
along
important
examples
demonstrations
that
achieved
breakthroughs
wearable
applications.
Finally,
we
discuss
opportunities,
current
challenges,
solutions,
future
investigative
directions
about
this
field.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(23)
Published: April 3, 2024
Abstract
Solar
energy
can
be
utilized
in
photocatalysis
technology
to
realize
light‐driven
hydrogen
peroxide
(H
2
O
)
production,
a
green
chemical
synthesis
route.
Designing
high‐performance
photocatalysts
is
critical
achieving
practical
solar
H
production.
During
the
past
decade,
significant
research
progress
made
photocatalytic
materials
for
Particularly
2D
materials‐based
stand
out
due
their
unique
physical
and
properties.
This
review
highlights
intricate
relationship
between
material
innovation
photochemical
It
starts
with
fundamental
principles
of
generation,
focusing
on
crucial
steps
such
as
photon
absorption,
carrier
dynamics,
surface
reactions,
challenges
that
solve
at
each
step.
Then,
various
production
are
introduced
detail.
Engineering
strategies
optimize
performance
discussed
afterward.
Finally,
future
opportunities
designing
outlined.
expected
inspire
engineering
conversion
other
chemicals.
Progress in Materials Science,
Journal Year:
2024,
Volume and Issue:
145, P. 101299 - 101299
Published: April 16, 2024
Electrochemistry-driven
techniques
for
advanced
energy
storage/conversion
and
environmental
protection
play
a
crucial
role
in
achieving
sustainable
development
goals.
As
an
indispensable
component
diverse
electrochemical
systems,
electroactive
materials
gain
soaring
interest
terms
of
rational
design
synthesis.
Notably,
mechanochemistry-based
green
powerful
synthesis
has
been
widely
employed
to
fabricate
materials,
given
their
scalability
tunability.
Recently,
mechanochemically
synthesized
have
applied
various
fields,
leading
significant
progress.
However,
systematic
analysis
these
advancements
is
still
missing.
Herein,
we
comprehensively
discuss
recent
achievements
mechanosynthesized
applications.
The
mechanochemical
introduced,
along
with
different
types
materials.
Subsequently,
the
review
delves
into
applications
conversion/storage
systems
remediation.
structure-performance
correlation
are
illustrated
by
discussing
effects
process
on
internal
external
properties
performance.
Lastly,
key
perspectives
this
field
discussed,
including
monitoring,
field-assisted
synthesis,
material
performance
optimization,
practical
applications,
mechanochemistry-driven
fuels/chemicals
By
illustrating
current
advances
related
aims
shed
some
light
upcoming
research
synthesis-driven
sustainability.
Applied Physics Reviews,
Journal Year:
2024,
Volume and Issue:
11(2)
Published: April 10, 2024
Exploring
nanoscale
material
properties
through
light-matter
interactions
is
essential
to
unveil
new
phenomena
and
manipulate
materials
at
the
atomic
level,
paving
way
for
ground-breaking
advancements
in
nanotechnology
science.
Various
elementary
excitations
low-energy
modes
of
reside
terahertz
(THz)
range
electromagnetic
spectrum
(0.1–10
THz)
occur
over
various
spatial
temporal
scales.
However,
due
diffraction
limit,
a
slew
THz
studies
are
restricted
drawing
conclusions
from
spatially
varying
responses
around
half
probing
wavelengths,
i.e.,
tens
couple
hundred
micrometers.
To
address
this
fundamental
challenge,
scanning
near-field
optical
microscopy
(SNOM),
notably
scattering-type
SNOM
(s-SNOM),
combined
with
sources
has
been
employed
fueling
growing
interest
technique
across
multiple
disciplines.
This
review
(1)
provides
an
overview
system
developments
SNOM,
(2)
evaluates
current
approaches
understand
quantify
interactions,
(3)
explores
advances
applications,
especially
nano-scale
employing
s-SNOM,
(4)
envisions
future
challenges
potential
development
avenues
practical
use
s-SNOM.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(4), P. 1042 - 1042
Published: Feb. 10, 2025
With
the
rapid
development
of
micro-nano
technology
and
wearable
devices,
flexible
photodetectors
(PDs)
have
drawn
widespread
interest
in
areas
such
as
healthcare,
consumer
electronics,
intelligence
interfaces.
Two-dimensional
(2D)
materials
with
layered
structures
excellent
optoelectronic
properties
mechanical
flexibility,
which
attract
a
great
deal
attention
applications.
Although
based
on
mechanically
exfoliated
2D
demonstrated
superior
performance
compared
to
traditional
Si-based
PDs,
large-scale
manufacturing
integration
remain
significant
challenges
for
achieving
industrial
production.
The
emerging
various
printing
provides
low-cost
highly
effective
method
integrated
manufacturing.
In
this
review,
we
comprehensively
introduce
most
recent
progress
printed
material
PDs.
We
first
reviewed
research
photodetectors,
discussion
is
focused
substrate
materials,
functional
figures
merits.
Furthermore,
solution
processing
coupled
film
strategies
produce
PDs
are
summarized.
Subsequently,
applications
image
sensors,
also
Finally,
point
out
potential
expect
work
inspire
promote
mass
process.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(3), P. 1958 - 1968
Published: Jan. 5, 2024
Assembling
solution-processed
van
der
Waals
(vdW)
materials
into
thin
films
holds
great
promise
for
constructing
large-scale,
high-performance
thin-film
electronics,
especially
at
low
temperatures.
While
transition
metal
dichalcogenide
assembled
in
solution
have
shown
potential
as
channel
materials,
fully
vdW
electronics
not
been
achieved
due
to
the
absence
of
suitable
dielectric
and
high-temperature
processing.
In
this
work,
we
report
on
all-solution-processedvdW
transistors
(TFTs)
comprising
molybdenum
disulfides
(MoS2)
Dion–Jacobson-phase
perovskite
oxides
high-permittivity
dielectric.
The
constituent
layers
are
prepared
colloidal
solutions
through
electrochemical
exfoliation
bulk
crystals,
followed
by
sequential
assembly
a
semiconductor/dielectric
heterostructure
TFT
construction.
Notably,
all
fabrication
processes
carried
out
temperatures
below
250
°C.
fabricated
MoS2
TFTs
exhibit
excellent
device
characteristics,
including
high
mobility
(>10
cm2
V-1
s-1)
an
on/off
ratio
exceeding
106.
Additionally,
use
high-k
allows
operation
voltage
(∼5
V)
leakage
current
(∼10–11
A),
enabling
power
consumption.
Our
demonstration
low-temperature
presents
cost-effective
scalable
approach
heterointegrated
electronics.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(24)
Published: April 23, 2024
Abstract
One
of
the
many
possible
ways
to
capture
carbon
dioxide
(CO
2
)
is
through
electrochemical
means.
This
an
emerging
approach
with
various
merits.
It
energy
efficient,
utilizes
renewable
energy,
operates
under
ambient
conditions,
provides
ease
for
control
reaction
rates,
and
scalable.
Additionally,
it
can
be
integrated
as
a
plug‐and‐play
module
at
scales,
including
large
industrial
sources
or
small
scale,
e.g.,
on
vehicles,
easily
combine
CO
capture,
storage,
utilization
into
value‐added
chemicals.
Various
“proof‐of‐concept”
approaches
have
been
demonstrated
in
recent
past.
These
are
made
electro‐active
materials
that
separate,
concentrate
form
electrodes,
electrolytes,
membranes
devices.
Herein,
these
their
working
mechanisms
identified
reviewed
devices
where
they
utilized.
Also,
current
challenges
future
research
directions
summarized
give
rational
understanding
guidance
selecting
designing
use
Chemical Society Reviews,
Journal Year:
2024,
Volume and Issue:
53(15), P. 7939 - 7959
Published: Jan. 1, 2024
The
ongoing
evolution
of
two-dimensional
(2D)
material-based
membranes
has
prompted
the
realization
mass
separations
at
1-nm
scale
due
to
their
well-defined
selective
nano-
and
subnanochannels.
Strategic
membrane
functionalization
is
further
found
be
key
augmenting
channel
accuracy
efficiency
in
distinguishing
ions,
gases
molecules
within
this
range
thus
trending
as
a
research
focus
energy-,
resource-,
environment-
pharmaceutical-related
applications.
In
review,
we
present
fundamentals
underpinning
functionalized
2D
various
separations,
elucidating
critical
"method-interaction-property"
relationship.
Starting
with
an
introduction
strategies,
our
discussion
on
functionalization-induced
channel-species
interactions
reveal
how
they
shape
transport-
operation-related
features
different
scenarios.
We
also
highlight
limitations
challenges
current
outline
necessary
breakthroughs
needed
apply
them
reliable
high-performance
separation
units
across
industries
future.
Nano Energy,
Journal Year:
2024,
Volume and Issue:
129, P. 109997 - 109997
Published: July 14, 2024
Hydrogen
holds
promise
for
slashing
emissions
in
energy
and
transportation
due
to
its
high
density
clean
combustion.
The
transition
hydrogen
fuel
encompasses
various
vehicles,
including
cars,
buses,
ships,
aircraft.
Proton
batteries
emerge
as
contenders
heavy-duty
leveraging
hydrogen's
potential
without
However,
realizing
stable,
cost-effective
generation
storage
on
an
industrial
scale
remains
a
formidable
engineering
hurdle.
In
this
review,
the
focus
is
of
two-dimensional
(2D)
materials
address
challenge.
These
offer
prospect
cost-efficient,
leak-free
even
under
atmospheric
pressure.
article
explores
recent
advancements
utilizing
2D
across
spectrum,
spanning
production,
storage,
conversion,
electrochemical
properties
relevant
proton
batteries.
Additionally,
it
delves
into
fundamental
aspects
crucial
applications
using
materials.
Noteworthy
attention
given
recently
developed
composite
exhibiting
exceptional
storage.
review
underscores
future
outlook
these
terms
large-scale
production
practical
implementation,
highlighting
their
revolutionize
technologies
renewable
sustainable
applications.
Journal of the American Chemical Society,
Journal Year:
2024,
Volume and Issue:
146(47), P. 32161 - 32205
Published: Nov. 18, 2024
Covalent
organic
frameworks
(COFs)
are
created
by
the
condensation
of
molecular
building
blocks
and
nodes
to
form
two-dimensional
(2D)
or
three-dimensional
(3D)
crystalline
frameworks.
The
diversity
with
different
properties
functionalities
large
number
possible
framework
topologies
open
a
vast
space
well-defined
porous
architectures.
Besides
more
classical
applications
materials
such
as
absorption,
separation,
catalytic
conversions,
interest
in
optoelectronic
COFs
has
recently
increased
considerably.
electronic
both
their
linkage
chemistry
can
be
controlled
tune
photon
absorption
emission,
create
excitons
charge
carriers,
use
these
carriers
photocatalysis,
luminescence,
chemical
sensing,
photovoltaics.
In
this
Perspective,
we
will
discuss
relationship
between
structural
features
properties,
starting
connectivity,
layer
stacking
2D
COFs,
control
over
defects
morphology
including
thin
film
synthesis,
exploring
theoretical
modeling
structural,
electronic,
dynamic
discussing
recent
intriguing
focus
on
photocatalysis
photoelectrochemistry.
We
conclude
some
remarks
about
present
challenges
future
prospects
powerful
architectural
paradigm.