ChemSusChem,
Journal Year:
2024,
Volume and Issue:
18(3)
Published: Sept. 18, 2024
Lithium-ion
capacitors
(LICs)
have
attracted
considerable
interest
because
of
their
excellent
power
and
energy
densities.
However,
the
development
LICs
is
limited
by
low
capacity
cathode
kinetics
mismatch
between
anode.
In
this
work,
mesoporous
carbon
materials
(MCs)
with
uniform
pore
sizes
were
prepared
using
magnesium
citrate
as
raw
material
through
a
self-templating
method.
During
carbonization
process,
MgO
nanoparticles
generated
from
act
template,
resulting
in
more
orderly
structure.
The
resultant
MCs
demonstrate
high
specific
surface
area
1673
m2
g-1
an
abundance
small
mesopores,
which
significantly
accelerated
ion
migration
within
electrolyte
expedited
formation
electric
double
layers.
Benefiting
these
advantages,
demonstrates
reversible
capacity,
cycling
stability,
rate
performance.
assembled
MCs-based
LIC
provides
density
152.2
Wh
kg-1
14.3
kW
kg-1.
After
5000
cycles,
retention
80
%
at
current
1
A
obtained.
These
results
highlight
potential
for
LICs.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 31, 2024
Abstract
Both
high
operation
voltage
and
theoretical
capacity
promise
polyanion‐type
fluorophosphate
Na
3
V
2
(PO
4
)
O
F
as
a
competitive
cathode
toward
high‐energy‐density
sodium‐ion
batteries
(SIBs).
However,
the
intrinsic
low
kinetic
characteristics
seriously
influence
its
high‐power
property
service
life.
To
well
address
this,
creative
tiny
high‐entropy
(HE)
doping
methodology
is
purposefully
developed
to
fabricate
nanoscale
1.94
(Cr,
Mn,
Co,
Ni,
Cu)
0.06
(NVPOF‐HE)
advanced
materials
for
SIBs.
The
grain
refinement
effect
induced
by
collaborative
regulations
from
polyvinyl
pyrrolidone
HE
heteroatomic
reasonably
proposed
nanosizing
particle
dimension
of
NVPOF‐HE.
Systematic
experiments
calculations
authenticate
that
efficiently
promotes
electronic/ionic
transport
high‐voltage
contribution,
weakens
lattice
expansion
over
+
‐(de)intercalation
processes.
Thanks
appealing
virtues
mentioned
here,
nano
NVPOF‐HE,
compared
single‐ion/dual‐ion/triple‐ion
doped
cases,
achieves
even
better
‐storage
performance
in
terms
both
high‐rate
capacities
long‐term
cycling
stability.
Furthermore,
NVPOF‐HE
assembled
full
SIBs
deliver
materials‐level
energy
density
463
Wh
kg
−1
electrochemical
stability
≈93.8%
retention
after
1000
cycles
at
5
C
rate.
More
essentially,
fundamental
insights
gained
here
provide
significant
scientific
technological
advancement
high‐performance
durable
polyanionic
cathodes
next‐generation
ACS Applied Energy Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: May 20, 2024
Lithium-ion
capacitors
(LICs)
consist
of
a
capacitor-type
cathode
and
lithium-ion
battery-type
anode,
incorporating
the
merits
both
components.
Well-known
for
their
high
energy
density,
superior
power
prolonged
cycle
life,
commendable
safety
attributes,
LICs
have
attracted
enormous
interest
in
recent
years.
However,
construction
high-performance
LIC
devices
faces
significant
constraints
due
to
inherent
kinetic
imbalances
between
electrode
materials
trade-off
stability.
Hence,
many
efforts
been
made
develop
LICs.
This
review
mainly
focuses
on
progresses
LICs,
particularly
containing
anode
active
materials,
prelithiation
technologies,
conductive
additives,
nonaqueous
electrolytes.
Finally,
summary
outlook
are
presented
highlight
some
future
challenges
hybrid
Energy Materials,
Journal Year:
2024,
Volume and Issue:
4(6)
Published: July 30, 2024
Lithium-ion
capacitors
(LICs)
represent
an
innovative
hybridization
in
the
energy
storage
field,
effectively
combining
best
features
of
supercapacitors
and
lithium-ion
batteries.
However,
theoretical
advantage
LICs
is
impeded
by
low
reaction
efficiency
negative
electrode
material
significant
volume
expansion.
Two-dimensional
(2D)
materials,
due
to
their
unique
morphology,
abundant
pores,
rich
active
centers,
adjustable
composition,
have
been
widely
studied
developed
as
electrodes
for
LICs.
Therefore,
it
imperative
provide
a
timely
review
latest
advancements
field.
The
initiates
with
detailed
exploration
infrastructure,
key
performance
evaluation
parameters,
underlying
mechanisms
that
define
Subsequently,
focus
shifts
towards
cutting-edge
research
surrounding
2D
including
graphene,
MXene,
transition-metal
dichalcogenides,
oxides.
further
elaborates
on
typical
applications
these
materials
within
LIC
frameworks,
highlighting
properties
contributions
enhanced
solutions.
In
conclusion,
discussion
addresses
challenges
encounter
applications,
such
scalability,
cost,
integration
issues,
while
also
projecting
future
development
prospects.
It
outlines
both
current
limitations
potential
breakthroughs
could
pave
way
more
advanced
efficient
technologies.
Small,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 2, 2024
Abstract
Ti
3
C
2
T
x
(MXene)
is
widely
acknowledged
as
an
excellent
substrate
for
constructing
heterogeneous
structures
with
transition
metal
chalcogenides
(TMCs)
boosting
the
electrochemical
performance
of
lithium‐ion
storage.
However,
conventional
synthesis
strategies
inevitably
lead
to
poor
charge
transfer
due
‐derived
TiO
at
interface
between
and
TMCs.
Here,
innovative
in
situ
selenization
strategy
proposed
replace
originally
generated
on
metallic
TiSe
interphase,
clearing
bottleneck
slow
barrier
caused
by
MXene
oxidation.
The
construction
bimetallic
selenide
formed
CoSe
generates
intrinsic
electric
fields
guide
fast
ion
diffusion
kinetics
a
interface.
Additionally,
/TiSe
/Ti
structure
enhanced
structural
stability
improved
rate
confirmed
both
experiments
theoretical
calculations.
engineered
exhibits
ultra‐high
pseudocapacitance
contribution
(73.1%
0.1
mV
s
−1
),
rendering
it
well‐suited
offset
differences
double‐layer
materials.
assembled
capacitor
based
possesses
high
energy
density
ultralong
life
span
(89.5%
after
10
000
times
A
g
).
This
devised
provides
feasible
solution
utilizing
advantages
substrates
lithium
storage
ultrafast
kinetics.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 26, 2024
All-solid-state
batteries
(ASSBs)
are
regarded
as
promising
next-generation
energy
storage
technology
owing
to
their
inherent
safety
and
high
theoretical
density.
However,
achieving
maintaining
solid-solid
electronic
ionic
contact
in
ASSBs
generally
requires
high-pressure
fabrication
operation,
posing
substantial
challenges
for
large-scale
production
application.
In
recent
years,
significant
efforts
made
address
these
pressure-related
challenges.
this
review,
the
impact
of
pressure
on
is
explored.
First,
categories,
origins,
associated
with
outlined.
Second,
an
overview
advancements
addressing
issues
provided,
focusing
electrode
materials
interfaces
various
solid-state
electrolytes
(SSEs).
Third,
advanced
characterizations
simulations
employed
unravel
intricate
electrochemical-mechanical
interactions
examined.
Finally,
existing
strategies
insights
low-stack-pressure
presented.