Nanomaterials,
Journal Year:
2025,
Volume and Issue:
15(9), P. 654 - 654
Published: April 25, 2025
Boron
phosphide
(BP),
an
emerging
III-V
semiconductor,
has
garnered
significant
interest
because
of
its
exceptional
structural
stability,
wide
bandgap,
high
thermal
conductivity,
and
tunable
electronic
properties.
This
review
provides
a
comprehensive
analysis
BP,
commencing
with
distinctive
characteristics
proceeding
detailed
examination
physicochemical
Recent
progress
in
BP
synthesis
is
critically
examined,
focus
on
key
fabrication
strategies
such
as
chemical
vapor
deposition,
high-pressure
co-crystal
melting,
molten
salt
methods.
These
approaches
have
enabled
the
controlled
growth
high-quality
nanostructures,
including
bulk
crystals,
nanoparticles,
nanowires,
thin
films.
Furthermore,
highlights
broad
application
spectrum
spanning
photodetectors,
sensors,
management,
energy
conversion,
storage.
Despite
these
advances,
precise
control
over
growth,
morphology,
phase
purity
BP's
low-dimensional
structures
remains
critical
challenge.
Addressing
limitations
requires
innovative
defect
engineering,
heterostructure
design,
scalable
manufacturing
techniques.
concludes
by
outlining
future
research
directions
that
are
essential
for
unlocking
potential
next-generation
electronics,
sustainable
technologies,
multifunctional
materials.
Nanomaterials,
Journal Year:
2025,
Volume and Issue:
15(9), P. 654 - 654
Published: April 25, 2025
Boron
phosphide
(BP),
an
emerging
III-V
semiconductor,
has
garnered
significant
interest
because
of
its
exceptional
structural
stability,
wide
bandgap,
high
thermal
conductivity,
and
tunable
electronic
properties.
This
review
provides
a
comprehensive
analysis
BP,
commencing
with
distinctive
characteristics
proceeding
detailed
examination
physicochemical
Recent
progress
in
BP
synthesis
is
critically
examined,
focus
on
key
fabrication
strategies
such
as
chemical
vapor
deposition,
high-pressure
co-crystal
melting,
molten
salt
methods.
These
approaches
have
enabled
the
controlled
growth
high-quality
nanostructures,
including
bulk
crystals,
nanoparticles,
nanowires,
thin
films.
Furthermore,
highlights
broad
application
spectrum
spanning
photodetectors,
sensors,
management,
energy
conversion,
storage.
Despite
these
advances,
precise
control
over
growth,
morphology,
phase
purity
BP's
low-dimensional
structures
remains
critical
challenge.
Addressing
limitations
requires
innovative
defect
engineering,
heterostructure
design,
scalable
manufacturing
techniques.
concludes
by
outlining
future
research
directions
that
are
essential
for
unlocking
potential
next-generation
electronics,
sustainable
technologies,
multifunctional
materials.