VS2
is
a
potential
anode
material
for
lithium-ion
batteries
(LIBs)
due
to
its
advantageous
properties.
Herein,
novel
three-dimensional
(3D)
VS2/reduced
graphene
oxide
(rGO)
heterostructure
(VS2-rGO)
fabricated
by
in-situ
assembly
of
caterpillar-like
nanosheets
on
rGO.
This
3D
VS2-rGO
with
well-defined
heterojunction
interface
engineered
mitigate
the
volumetric
expansion
during
Li+
intercalation/deintercalation
cycles.
optimized
design
promotes
enhanced
conductivity
across
heterojunction,
facilitating
efficient
electron
and
ion
transport.
The
electrode
shows
higher
reversible
capacity
better
rate
performance
(644.02
mA
h
g-1
at
0.1
A
after
140
cycles,
526.66
2
g-1)
as
compared
pure
(433.69
63.91
g-1).
Ex-situ
X-ray
diffraction
(XRD)
analysis
reveals
phase
formation
upon
intercalation
(Li0.5VS2
LiVS2)
subsequent
de-intercalation.
lower
diffusion
barrier
within
(0.183
eV)
layers
(0.225
eV),
predicted
first-principles
calculations,
results
in
transport
kinetics
improved
cycling
material.
work
offers
perspectives
influence
heterojunctions
LIBs.
Nanoscale,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
This
review
highlights
the
structural
design
of
freestanding
nanofibrous
anodes
for
a
thorough
understanding
synergistic
effect
between
and
anode
active
materials
in
metal-ion
batteries.
Chemical Communications,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Various
computational
methodologies,
encompassing
quantum
chemistry,
molecular
dynamics
simulations,
and
high-throughput
screening,
have
been
reviewed
for
their
applications
in
electrolyte
design
lithium-ion
batteries.
IGI Global eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 327 - 380
Published: April 11, 2025
Polymeric
nanofibers
are
revolutionizing
biomedical
engineering
and
environmental
sustainability
due
to
their
highly
unique
properties
such
as
a
high
surface
area
volume
ratio,
an
ability
modulate
pore
size,
mechanical
flexibility.
Nanofibers
mimic
extracellular
matrix
structures
aid
tissue
engineering,
regenerative
medicine,
provide
targeted
drug
delivery,
localized
treatments
of
cancer
infections.
Further
advances
in
the
diagnostic
field,
including
disease
diagnostics
biosensors,
further
demonstrate
potential
these
substrates.
environmentally
beneficial
by
enhancing
filtration
air
water,
pollutant
degradation,
renewable
energy
systems
solar
cells
batteries.
Scalability,
cost,
recyclability
continue
present
challenges,
thus
eco-friendly
approaches
interdisciplinary
cooperation
is
required.
AI
machine
learning
integration
future
promises
optimized
production
broader
applications
serve
critical
societal
challenges.
Molecules,
Journal Year:
2024,
Volume and Issue:
29(17), P. 4096 - 4096
Published: Aug. 29, 2024
Lithium
metal
is
regarded
as
ideal
anode
material
due
to
its
high
theoretical
specific
capacity
and
low
electrode
potential.
However,
the
uncontrollable
growth
of
lithium
dendrites
seriously
hinders
practical
application
lithium-metal
batteries
(LMBs).
Among
various
strategies,
carbon
nanofiber
materials
have
shown
great
potential
in
stabilizing
(LMA)
their
unique
functional
structural
characteristics.
Here,
latest
research
progress
on
nanofibers
(CNFs)
for
LMA
systematically
reviewed.
Firstly,
several
common
preparation
techniques
CNFs
are
summarized.
Then,
development
prospects,
strategies
dendrite-free
emphatically
introduced
from
perspectives
neat
CNF-based
composites.
Finally,
current
challenges
prospects
summarized
discussed.
These
discussions
proposed
provide
new
ideas
high-performance
LMBs.
ACS Applied Energy Materials,
Journal Year:
2024,
Volume and Issue:
7(16), P. 7064 - 7073
Published: Aug. 15, 2024
The
increasing
demand
for
wearable
and
bendable
electronics
has
generated
significant
interest
in
flexible
zinc-ion
batteries.
However,
their
development
been
hindered
by
the
inadequate
capacity
cycling
stability
of
electrodes
under
repeated
mechanical
deformation.
Herein,
we
present
a
self-supported,
binder-free,
manganese
oxide-based
cathode
This
innovation
leverages
an
optimum
amount
well-dispersed
oxide
nanoparticles
within
nitrogen-doped
carbon
nanofiber
matrix,
achieved
fine-tuning
mass
ratio
polyacrylonitrile
acetate
during
electrospinning.
sample
exhibits
robustness
desirable
morphology
without
any
bead
formations.
synergistic
interfaces
between
matrix
facilitate
rapid
charge
transfer
minimize
active
material
detachment,
leading
to
unprecedented
combination
high-rate
capability
stability.
Consequently,
free-standing
can
deliver
high
specific
392
mA
h
g–1
at
0.1
A
maintain
stable
(∼200
g–1)
up
1800
cycles
current
density
2.0
g–1.
Furthermore,
employing
obtained
with
quasi-solid
gel
electrolyte,
batteries
achieve
performance
average
∼186
over
140
cycles,
even
extreme
bending
angles
180°.
finding
surpasses
existing
offers
promising
path
advanced
energy
storage
solutions
electronics.
Large-scale
durable
aqueous
zinc
ion
batteries
for
stationary
storage
were
realized
by
spray-coatingconductive
PEDOT(Poly(3,4-ethylenedioxythiophene))
wrapping
MnO2/carbon
microspheres
hybrid
cathode
in
this
work.
The
porous
carbon
with
multiple
layers
deriving
from
sucrose
provided
suitable
accommodation
MnO2
active
materials,
exposing
more
redox
sites
and
enhancing
the
contact
surface
between
electrolyte
materials.
As
a
result,
MnO2/microspheres
adhered
to
current
collector
conductive
PEDOT
coating
without
any
binder.
ternary
design
retarded
structural
degradation
during
cycling
shortened
electron
transport
path,
rendering
full
high
capacity
long
cycle
stability.
resulting
performed
of
277
mAh
g-1,
227
110
85
g-1
50
at
0.2
A
0.5
1
2
5
respectively.
After
3000
cycles
initial
retained
86%,
80%
after
5000
cycles.
GITT
indicated
enabled
better
intercalating
kinetics
than
conventional
MnO2.
work
could
represent
novel
significant
step
forward
studies
on
large-scale
application
batteries.
VS2
is
a
potential
anode
material
for
lithium-ion
batteries
(LIBs)
due
to
its
advantageous
properties.
Herein,
novel
three-dimensional
(3D)
VS2/reduced
graphene
oxide
(rGO)
heterostructure
(VS2-rGO)
fabricated
by
in-situ
assembly
of
caterpillar-like
nanosheets
on
rGO.
This
3D
VS2-rGO
with
well-defined
heterojunction
interface
engineered
mitigate
the
volumetric
expansion
during
Li+
intercalation/deintercalation
cycles.
optimized
design
promotes
enhanced
conductivity
across
heterojunction,
facilitating
efficient
electron
and
ion
transport.
The
electrode
shows
higher
reversible
capacity
better
rate
performance
(644.02
mA
h
g-1
at
0.1
A
after
140
cycles,
526.66
2
g-1)
as
compared
pure
(433.69
63.91
g-1).
Ex-situ
X-ray
diffraction
(XRD)
analysis
reveals
phase
formation
upon
intercalation
(Li0.5VS2
LiVS2)
subsequent
de-intercalation.
lower
diffusion
barrier
within
(0.183
eV)
layers
(0.225
eV),
predicted
first-principles
calculations,
results
in
transport
kinetics
improved
cycling
material.
work
offers
perspectives
influence
heterojunctions
LIBs.
