Energy Material Advances,
Journal Year:
2024,
Volume and Issue:
5
Published: Jan. 1, 2024
As
the
world
enters
into
era
of
electrifying
transportation
for
cleaner
energy,
lithium-ion
battery
(LIB)-powered
electric
vehicles
have
drawn
great
attention
in
recent
years.
However,
fast-charging
capability
LIBs
has
long
been
regarded
as
technological
obstacle
to
wider
adoption
(BEVs)
market.
A
substantial
challenge
associated
with
fast
charging
is
formation
Li
plating
on
graphite
anode
it
major
contributor
side
reactions
during
cell
operations.
In
this
review,
fundamentals
and
corresponding
influencing
factors
(including
state
charge
[SOC],
current
density,
temperature,
N/P
ratio)
Li-ion
intercalation
process
are
first
elucidated
under
conditions.
Furthermore,
conventional
strategies
suppress
by
enhancing
ion
transport
kinetics
between
interface
electrode
through
engineering
electrolyte
design
also
summarized
analyzed.
Then,
innovative
achieving
ultrahigh
SOC
anodes
regulating
morphology
host
materials
construct
hybrid
storage
discussed
detail.
Two
types
compared
terms
performance,
simplicity,
safety
concerns.
Last,
we
highlight
some
research
orientations
perspectives
pertaining
development
storage,
providing
effective
approaches
address
issues
LIBs.
Reviews in Inorganic Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 28, 2025
Abstract
Niobium,
a
versatile
transition
metal,
plays
vital
role
in
expanding
electrochemical
technologies
due
to
its
unique
combination
of
physical
and
chemical
properties,
such
as
high
stability,
conductivity,
compatibility
with
varied
materials.
This
review
delves
deeply
into
the
applications
niobium
sensing
energy
storage
systems,
focusing
on
transformational
potential.
It
begins
by
explaining
fundamental
features
that
make
it
an
excellent
material
for
these
applications.
The
principles
sensors
are
elaborated,
focus
their
significance
areas
healthcare
diagnostics,
environmental
monitoring,
industrial
processes.
highlights
fabrication
techniques
niobium-based
sensors,
detailing
advancements
sensitivity
specificity
achieved
through
compounds.
In
domain
storage,
examines
niobium’s
integration
lithium-ion,
sodium-ion,
lithium-sulfur
batteries.
discusses
how
compounds
enhance
battery
performance,
including
improvements
density,
cycling
charge-discharge
efficiency.
Comparative
analyses
conventional
materials
presented
underscore
superior
functionality
systems.
By
synthesizing
current
research,
identifies
critical
knowledge
gaps
potential
future
investigation,
ultimately
underscoring
pivotal
driving
innovation
technologies.
Advanced Energy Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 28, 2025
Abstract
LiMn
2
O
4
and
LiFePO
materials
are
widely
applied
in
electric
vehicles
energy
storage.
Currently,
spent
recycling
is
challenged
by
long
process,
high
consumption,
poor
economy
due
to
the
indispensable
metal
separation
their
recycling.
Aiming
at
this
challenge,
an
upcycling
of
low‐value
cathode
high‐value
high‐voltage
lithium
ferromanganese
phosphate
(LMFP)
simple
leaching
hydrothermal
reaction
proposed,
LMFP
material
with
ultrahigh
rate
capability
reversibility
its
homogenized
element
distribution,
well‐defined
nanorods
particles,
short
Fe/Mn─O
bond
average
Li─O
length
regenerated.
The
initial
discharge
capacity
reaches
144.2
mAh
g
−1
87%
retention
after
1000
cycles
1
C.
Even
cycling
5
C,
a
136.9
86.4%
achieved
cycles.
Kinetics
analysis
characterizations
regenerated
further
reveal
fast
diffusion
ability
stable
structure.
This
work
sheds
light
on
potential
value
regeneration
offers
economic
strategy
for
materials.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 7, 2024
Abstract
Layered
transition
metal
oxide
(LTMO)
cathode
materials
of
sodium‐ion
batteries
(SIBs)
have
shown
great
potential
in
large‐scale
energy
storage
applications
owing
to
their
distinctive
periodic
layered
structure
and
2D
ion
diffusion
channels.
However,
several
challenges
hindered
widespread
application,
including
phase
complexities,
interface
instability,
susceptibility
air
exposure.
Fortunately,
an
impactful
solution
has
emerged
the
form
a
high‐entropy
doping
strategy
employed
research.
Through
implementation
doping,
LTMOs
can
overcome
aforementioned
limitations,
thereby
elevating
LTMO
highly
competitive
attractive
option
for
next‐generation
cathodes
SIBs.
Thus,
comprehensive
overview
origins,
definition,
characteristics
is
provided.
Additionally,
associated
with
SIBs
are
explored,
discussed
various
modification
methods
address
these
challenges.
This
review
places
significant
emphasis
on
conducting
thorough
analysis
research
advancements
about
utilized
Furthermore,
meticulous
assessment
future
development
trajectory
undertaken,
heralding
valuable
insights
design
synthesis
advanced
materials.
Green Energy & Environment,
Journal Year:
2024,
Volume and Issue:
unknown
Published: June 1, 2024
Aqueous
zinc
metal
batteries
have
garnered
substantial
attention
ascribing
to
affordability,
intrinsic
safety,
and
environmental
benignity.
Nevertheless,
yet
are
challenged
with
potential
service
life
issues
resulted
from
dendrites
side
reaction.
In
this
paper,
a
strategy
of
nanoparticles
doped
hydrogel
is
proposed
for
constructing
carboxymethyl
cellulose/graphite
oxide
hybrid
electrolyte
membranes
exceptional
ionic
conductivity,
anti-swelling
property,
simultaneously
addressing
the
parasitic
The
pivotal
functions
in
mitigating
hydrogen
evolution
fostering
accelerated
Zn
deposition
been
elucidated
based
on
principles
thermodynamic
reaction
kinetic.
cellulose
/graphite
endows
cycling
longevity
(800
h
at
1
mA·cm-2/1
mAh·cm-2)
Zn||Zn
battery,
as
well
high
Coulombic
efficiency
Zn||Cu
battery
(averagely
99.14
%
within
439
cycles
mAh·cm-2).
assembled
Zn||NH4V4O10
delivers
reversible
specific
capacity
328.5
mAh·g-1
0.1
A·g-1.
Moreover,
device
pouch
remains
operational
under
severe
conditions
like
bending
cutting.
This
work
provides
valuable
reference
developing
inorganic
nanoparticle
realizing
high-performance
batteries.
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 22, 2025
Abstract
The
reasonable
design
of
advanced
anode
materials
for
electrochemical
energy
storage
(EES)
devices
is
crucial
in
expediting
the
progress
renewable
technologies.
Nb
2
O
5
has
attracted
increasing
research
attention
as
an
candidate.
Defect
engineering
regarded
a
feasible
approach
to
modulate
local
atomic
configurations
within
.
Therefore,
introducing
defects
into
considered
be
promising
way
enhance
performance.
However,
there
no
systematic
review
on
defect
process.
This
systematically
analyzes
first
crystal
structures
and
mechanisms
Subsequently,
systematical
summary
latest
advances
EES
presented,
mainly
focusing
vacancy
modulation,
ion
doping,
planar
defects,
porosity,
amorphization.
Of
particular
note
effects
:
improving
electronic
conductivity,
accelerating
diffusion,
maintaining
structural
stability,
active
sites.
further
summarizes
diverse
methodologies
inducing
commonly
used
techniques
characterization
In
conclusion,
article
proposes
current
challenges
outlines
future
development
prospects
achieve
high‐performance
with
both
high
power
densities.
