Physical Chemistry Chemical Physics,
Journal Year:
2023,
Volume and Issue:
26(3), P. 2324 - 2331
Published: Dec. 13, 2023
Two-dimensional
(2D)
magnetic
materials
with
large
and
tunable
magnetocrystalline
anisotropy
(MCA)
provide
unique
opportunities
to
develop
various
spintronic
devices.
We,
herein,
propose
an
experimentally
feasible
2D
material
platform,
Mn
Nanoscale,
Journal Year:
2024,
Volume and Issue:
16(10), P. 5079 - 5106
Published: Jan. 1, 2024
Bismuth
oxyiodide
(BiOI)
is
a
kind
of
typical
two-dimensional
(2D)
material
that
has
been
increasingly
developed
alongside
other
2D
materials
such
as
graphene,
MXenes,
and
transition-metal
dichalcogenide.
However,
its
potential
applications
have
not
widely
whispered
compared
to
those
materials.
Using
distinctive
properties,
BiOI
can
be
used
for
various
applications,
especially
when
it
meets
sunlight
light-related
electromagnetic
waves.
In
this
present
review,
we
discuss
the
developments
challenges
in
photodetector
light-assisted
sensors,
photovoltaic
devices,
optoelectronic
logic
well
photocatalysts.
We
start
discussion
with
basic
understanding
development
BiOI,
crystal
structure,
properties.
The
synthesis
further
development,
green
synthesis-suited
industry,
device
integration,
are
also
explained
together
plausible
strategy
enhance
feasibility
applications.
believe
provided
perspectives
will
only
promote
one
highly
considered
but
assist
recent
graduates
any
science
discipline
inform
senior
scientists
industrial-based
stakeholders
latest
advances
bismuth
oxide
mixed-anion
compounds.
Sensors,
Journal Year:
2023,
Volume and Issue:
23(21), P. 8674 - 8674
Published: Oct. 24, 2023
MXenes
are
a
class
of
2D
transition-metal
carbides,
nitrides,
and
carbonitrides
with
exceptional
properties,
including
substantial
electrical
thermal
conductivities,
outstanding
mechanical
strength,
considerable
surface
area,
rendering
them
an
appealing
choice
for
gas
sensors.
This
manuscript
provides
comprehensive
analysis
heterostructures
based
on
employed
in
gas-sensing
applications
focuses
addressing
the
limited
understanding
sensor
mechanisms
MXene-based
while
highlighting
their
potential
to
enhance
performance.
The
begins
broad
overview
both
pristine
materials
heterostructures.
Subsequently,
it
explores
various
features
heterostructures,
composites
other
prospects
applications.
Additionally,
evaluates
different
engineering
strategies
compares
advantages
discussing
limitations
current
state-of-the-art
Ultimately,
this
review
seeks
foster
collaboration
knowledge
exchange
within
field,
facilitating
development
high-performance
sensors
MXenes.
Journal of Materials Chemistry A,
Journal Year:
2024,
Volume and Issue:
12(13), P. 7742 - 7753
Published: Jan. 1, 2024
Spin-polarized
first-principles
calculations
were
carried
out
to
explore
whether
B,
Si,
and
Ge-doped
SMoSe
Janus
layers
can
be
used
as
potential
catalysts
in
the
hydrogen
evolution
reaction.
In
this
paper,
we
present
a
detailed
and
comprehensive
review
of
the
MAX
phase
(bulk)
their
2D
derivative
MXenes
on
basis
synthesis,
properties,
applications.
MAX/Mexene
have
emerged
as
class
materials
with
tremendous
potential
for
various
applications
in
numerous
emerging
technologies.
We
thoroughly
surveyed
almost
all
relevant
literature
MAX/Mexene.
provide
report
synthesis
methods
phases,
including
traditional
innovative
approaches
such
solid-state
spark
plasma
sintering,
highlighting
structural
compositional
diversity.
The
unique
physical,
chemical,
mechanical
properties
high
thermal
stability,
electronic,
magnetic,
electrical
conductivity,
flexibility,
are
explored
along
underlying
mechanism.
Furthermore,
highlights
current
research
trend
MXene
advancement
energy
harvesting
H\(_2\)
production,
solar
cells,
storage,
catalysis,
spintronics,
electronic
devices
environmental
remediation.
Their
added
features
damage
tolerance,
radiation
heat
crack-healing,
exchangers,
etc.
addition,
provides
information
future
directions
that
utilize
knowledge
identify
gaps.
purpose
is
to
facilitate
advancements
understanding
application
phases
MXenes,
positioning
them
pivotal
next-generation