Journal of Materials Chemistry A,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Lanthanum
modification
and
defect
engineering
were
used
to
regulate
the
microenvironment
of
Co
in
MOF-74.
DFT
demonstrated
strong
hybridization
between
unpaired
electrons
O
explained
enhanced
2
activation
for
epoxidation.
Nano-Micro Letters,
Journal Year:
2024,
Volume and Issue:
16(1)
Published: June 14, 2024
Abstract
MXene
has
garnered
widespread
recognition
in
the
scientific
community
due
to
its
remarkable
properties,
including
excellent
thermal
stability,
high
conductivity,
good
hydrophilicity
and
dispersibility,
easy
processability,
tunable
surface
admirable
flexibility.
MXenes
have
been
categorized
into
different
families
based
on
number
of
M
X
layers
n+1
n
,
such
as
2
X,
3
4
and,
recently,
5
.
Among
these
families,
particularly
Ti
C
greatly
explored
while
limited
studies
given
synthesis.
Meanwhile,
family
developed
hence,
demanding
a
compilation
evaluated
studies.
Herein,
this
review
provides
systematic
overview
latest
advancements
MXenes,
focusing
their
properties
applications
energy
storage
devices.
The
objective
is
provide
guidance
researchers
fostering
MXene-based
nanomaterials,
not
only
for
devices
but
also
broader
applications.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
11(39)
Published: Aug. 19, 2024
The
all-organic
aqueous
dual-ion
batteries
(ADIBs)
have
attracted
increasing
attention
due
to
the
low
cost
and
high
safety.
However,
solubility
unstable
activity
of
organic
electrodes
restrict
synergistic
storage
anions
cations
in
symmetric
ADIBs.
Herein,
a
novel
polyimide-based
covalent
framework
(labeled
as
NTPI-COF)
is
constructed,
featured
with
boosted
structure
stability
electronic
conductivity.
Through
regulating
porosity
bipolarity
integrally,
NTPI-COF
possesses
hierarchical
porous
(mesopore
micropore)
abundant
bipolar
active
centers
(C═O
C─N),
which
exhibits
rapid
transport
effects.
As
result,
for
ADIBs
deliver
reversible
capacity
109.7
mA
h
g
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 26, 2025
Abstract
Sodium‐based
rechargeable
batteries
are
some
of
the
most
promising
candidates
for
electric
energy
storage
with
abundant
sodium
reserves,
particularly,
sodium‐based
dual‐ion
(SDIBs)
perform
advantages
in
high
work
voltage
(≈5.0
V),
high‐power
density,
and
potentially
low
cost.
However,
irreversible
electrolyte
decomposition
co‐intercalation
solvent
molecules
at
electrode
interface
under
a
charge
state
blocking
their
development.
Herein,
high‐salt
concentration
microenvironment
is
created
proposed
by
tailoring
solvation
structures
carriers
including
both
cations
anions,
which
maintains
highly
oxidation‐resistant
contact
ion
pairs
aggregates
provides
conductivity.
The
tailored
structure
makes
great
contribution
to
protecting
graphite
cathode
from
oxidation,
co‐intercalation,
structural
degradation
constructing
robust
cathode‐electrolyte
interphase
standout
electrochemical
stability.
Based
on
this,
SDIBs
achieved
an
excellent
high‐voltage
cycling
stability
81%
capacity
retention
after
10
000
cycles
battery
showed
improved
rate
performance
97.4
mAh
g
−1
maintained
100
C.
It
identified
that
regulating
anion
responsible
stable
chemistry
enhanced
reaction
kinetics,
deep
insight
into
compatibility
design
between
specialized
electrodes.
Nanotechnology Reviews,
Journal Year:
2024,
Volume and Issue:
13(1)
Published: Jan. 1, 2024
Abstract
Electrode
materials
comprising
SnO
2
quantum
dots
embedded
within
ZnO
hexagonal
prisms
were
successfully
synthesized
for
building
cost-effective
energy-storage
devices.
Extensive
structural
and
functional
characterizations
performed
to
assess
the
electrochemical
performance
of
electrodes.
SEM–EDS
results
confirm
a
uniform
distribution
across
ZnO.
The
integration
with
markedly
improved
behavior.
analysis
electrode
functionality
conducted
in
3
M
KOH
electrolyte
revealed
specific
capacitances
949.26
700.68
F
g⁻
1
@ZnO
electrodes,
respectively,
under
current
density
A
.
After
undergoing
5,000
cycles
at
15
,
electrodes
displayed
impressive
cycling
stability,
maintaining
capacitance
retention
rates
89.9
92.2%,
respectively.
Additionally,
symmetric
supercapacitor
(SSC)
device
constructed
using
showcased
exceptional
performance,
exhibiting
83
1.2
Impressive
power
energy
densities
achieved
by
device,
values
reaching
2,808
70.2
W
kg⁻
Notably,
SSC
maintained
capacity
preservation
75%
throughout
galvanostatic
charge–discharge
sequences.
outcomes
highlight
potential
as
candidates
applications,
offering
scalability
cost-effectiveness.
proposed
approach
enhances
while
ensuring
affordability,
facilitating
creation
effective
financially
feasible
storage
solutions.