Deleted Journal,
Journal Year:
2024,
Volume and Issue:
3(3), P. e9120118 - e9120118
Published: March 11, 2024
Since
limited
energy
density
and
intrinsic
safety
issues
of
commercial
lithium-ion
batteries
(LIBs),
solid-state
(SSBs)
are
promising
candidates
for
next-generation
storage
systems.
However,
their
practical
applications
restricted
by
interfacial
kinetic
problems,
which
result
in
decay
failure.
This
review
discusses
the
formation
mechanisms
these
from
perspective
typical
electrolytes
(SSEs)
provides
an
overview
recent
advanced
anode
engineering
SSBs
based
on
representative
anodes
including
Li
metal,
graphite-based,
Si-based
anodes,
summarizing
advantages
problems
each
strategy.
The
development
anode-free
concept
is
demonstrated
as
well.
Finally,
recommendations
proposed
potential
directions
future
research
SSBs.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(21), P. 13662 - 13674
Published: May 16, 2024
Porous
copper
(Cu)
current
collectors
show
promise
in
stabilizing
Li
metal
anodes
(LMAs).
However,
insufficient
lithiophilicity
of
pure
Cu
and
limited
porosity
three-dimensional
(3D)
porous
structures
led
to
an
inefficient
Li–Cu
composite
preparation
poor
electrochemical
performance
anodes.
Herein,
we
propose
a
Cu-CuZn
(DG-CCZ)
host
for
tackle
these
issues.
This
architecture
features
pore
size
distribution
lithiophilic-lithiophobic
characteristics
designed
gradient
from
the
inside
outside
anode
structure.
dual-gradient
exhibits
exceptional
capillary
wettability
molten
provides
high
up
66.05%.
design
promotes
preferential
deposition
interior
structure
during
battery
operation,
effectively
inhibiting
dendrite
formation.
Consequently,
all
cell
systems
achieve
significantly
improved
cycling
stability,
including
half-cells,
Li–Li
symmetric
cells,
Li-LFP
full
cells.
When
paired
synergistically
with
double-coated
LiFePO4
cathode,
pouch
configured
multiple
electrodes
demonstrates
impressive
discharge
capacity
159.3
mAh
g–1
at
1C.
We
believe
this
study
can
inspire
future
3D
enhanced
utilization
efficiency
facilitate
development
high-energy
batteries.
Energy & Environmental Science,
Journal Year:
2024,
Volume and Issue:
17(19), P. 7119 - 7128
Published: Jan. 1, 2024
A
single-ion
conducting
solid
polymer
electrolyte
with
enhanced
Li
+
migration
by
controlling
anion
immobilization
and
solvation
was
developed,
showcasing
superior
electrochemical
performance
industrial
compatibility.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(19)
Published: Feb. 7, 2024
Abstract
Unleashing
the
potential
of
lithium‐metal
anodes
in
practical
applications
is
hindered
by
inherent
stress‐related
challenges
arising
from
their
limitless
volume
expansion,
leading
to
mechanical
failures
such
as
electrode
cracking,
solid
electrolyte
interphase
damage,
and
dendritic
growth.
Despite
various
protective
strategies
“combat”
stress
anodes,
they
fail
address
intrinsic
issue
fundamentally.
Here,
a
unique
strategy
proposed
that
leverages
generated
during
battery
cycling
via
piezoelectric
effect,
transforming
adaptive
built‐in
electric
field
accelerate
lithium‐ion
migration,
homogenize
lithium
deposition,
alleviate
concentration.
The
mechanism
effect
modulating
electro‐chemomechanical
evolution
further
validated
decoupled
through
finite
element
method
simulations.
Inspired
this
strategy,
high
sensitivity,
fast
responsive,
strength
adaptability
polymer
used
demonstrate
feasibility
corresponding
protected
anode
shows
stability
over
6000
h
under
current
density
10
mA
cm
−2
extending
life
variety
coin
pouch
cell
systems.
This
work
effectively
tackles
issues
decoupling
also
contributes
developing
more
stable
for
future
research.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(27)
Published: April 4, 2024
Abstract
The
development
of
solid‐state
electrolytes
(SSEs)
with
outstanding
comprehensive
performance
is
currently
a
critical
challenge
for
achieving
high
energy
density
and
safer
batteries
(SSBs).
In
this
study,
strategy
nano‐confined
in
situ
solidification
proposed
to
create
novel
category
molten
guest‐mediated
metal–organic
frameworks,
named
MGM–MOFs.
By
embedding
the
newly
developed
crystalline
organic
electrolyte
(ML
20
)
into
nanocages
anionic
MOF–OH,
MGM–MOF–OH,
characterized
by
multi‐modal
supramolecular
interaction
sites
continuous
negative
electrostatic
environments
within
nano‐channels,
achieved.
These
nanochannels
promote
ion
transport
through
successive
hopping
Li
+
between
neighbored
suppress
anion
movement
chemical
constraint
hydroxyl‐functionalized
pore
wall.
This
results
remarkable
conductivity
7.1
×
10
−4
S
cm
−1
transference
number
0.81.
Leveraging
these
advantages,
SSBs
assembled
MGM–MOF–OH
exhibit
impressive
cycle
stability
specific
410.5
Wh
kg
anode
cathode
under
constrained
conditions
various
working
temperatures.
Unlike
flammable
traditional
MOFs,
demonstrates
robustness
harsh
conditions,
including
ignition,
voltage,
extended
humidity.
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 20, 2025
Discontinuous
and
uneven
Li+
flux
leads
to
inhomogeneous
reactions,
accelerating
lithium
(Li)
dendrite
growth
reducing
the
utilization
of
active
materials,
which
severely
impacts
performance
metal
batteries
(LMBs).
To
address
this
challenge,
we
propose
an
effective
homogeneous
reaction
design
facilitated
by
all-aligned
nanofibrous
architecture,
establishes
continuous,
uniform,
rapid
pathways
throughout
battery.
This
enhances
diffusion
dynamics
ensures
a
uniform
distribution
current
density,
hence
promoting
Li
nucleation
at
anode
efficient
insertion/extraction
cathode.
Moreover,
architecture
exhibits
superior
mechanical
strength
flexibility,
maintaining
structural
stability
during
long-term
cycling
suppressing
growth,
thereby
minimizing
risk
short
circuits.
As
result,
LMBs
incorporating
exhibit
exceptional
electrochemical
performance.
work
provides
valuable
insights
into
reactions
for
high-performance
LMBs.
EcoMat,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 23, 2024
Abstract
Lithium
metal
batteries
offer
a
promising
solution
for
high
density
energy
storage
due
to
their
theoretical
capacity
and
negative
electrochemical
potential.
However,
implementing
of
these
faces
challenges
related
electrolyte
instability
the
formation
solid
interphase
(SEI)
on
lithium
(Li)
anode.
The
decomposition
liquid
electrolytes
leading
creation
SEI
emphasizes
significance
type
Li
salt,
solvent,
additives
designed
used,
as
well
interactions
during
SEI.
For
practical
applications,
ensuring
both
reversibility
anode
stability
at
voltages
is
crucial.
In
this
review,
we
explore
recent
advancements
in
addressing
through
new
designs
engineering
practices.
Specifically,
investigate
effects
systems,
including
carbonate‐based
ether‐based
solutions,
along
with
modifications
systems
aimed
achieving
more
stable
interface
Additionally,
discuss
various
artificial
structures
based
organic
inorganic
components.
By
critically
examining
research
areas,
review
provides
valuable
insights
into
current
state‐of‐the‐art
strategies
enhancing
performance
safety
batteries.
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