Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 11, 2024
Abstract
The
rational
and
well‐structured
construction
of
electrocatalysts
with
exceptional
catalytic
activity
adsorption
capability
is
essential
for
effectively
addressing
the
challenges
faced
by
lithium‐sulfur
batteries
(LSBs).
In
this
paper,
synergistic
effect
spatial
confinement
design
doping
engineering‐induced
electronic‐state
modulation
leveraged
to
suppress
shuttle
effect,
high‐efficiency
catalysis
polysulfide
conversion
achieved.
Ni‐doped
CoSe
2
nanoparticles
are
in
situ
formed
on
a
3D
MXene
hollow
microsphere
via
self‐assembly
selenization
strategies.
structure
provides
serves
as
physical
barrier,
mitigating
while
prevention
self‐stacking
ensures
maximal
exposure
Ni‐CoSe
provide
additional
active
sites
enhances
their
properties.
These
findings
corroborated
electrochemical
experiments
XRD
analysis,
demonstrating
significantly
improved
rate
capabilities
cycling
stability
LSBs
utilizing
functional
electrocatalyst.
This
study
presents
valuable
pathway
exploiting
structural
develop
high‐performance
LSBs.
Molecules,
Journal Year:
2024,
Volume and Issue:
29(20), P. 4880 - 4880
Published: Oct. 15, 2024
Simple
development
of
an
electrochemiluminescence
(ECL)
immunosensor
for
convenient
detection
tumor
biomarker
is
great
significance
early
cancer
diagnosis,
treatment
evaluation,
and
improving
patient
survival
rates
quality
life.
In
this
work,
demonstrated
based
on
enhanced
ECL
signal
boosted
by
nanochannel-confined
Au
nanomaterial,
which
enables
sensitive
the
biomarker-carcinoembryonic
antigen
(CEA).
Vertically-ordered
mesoporous
silica
film
(VMSF)
with
a
nanochannel
array
amine
groups
was
rapidly
grown
simple
low-cost
indium
tin
oxide
(ITO)
electrode
using
electrochemically
assisted
self-assembly
(EASA)
method.
nanomaterials
were
confined
in
situ
VMSF
through
electrodeposition,
catalyzed
both
conversion
dissolved
oxygen
(O
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 11, 2024
Abstract
The
rational
and
well‐structured
construction
of
electrocatalysts
with
exceptional
catalytic
activity
adsorption
capability
is
essential
for
effectively
addressing
the
challenges
faced
by
lithium‐sulfur
batteries
(LSBs).
In
this
paper,
synergistic
effect
spatial
confinement
design
doping
engineering‐induced
electronic‐state
modulation
leveraged
to
suppress
shuttle
effect,
high‐efficiency
catalysis
polysulfide
conversion
achieved.
Ni‐doped
CoSe
2
nanoparticles
are
in
situ
formed
on
a
3D
MXene
hollow
microsphere
via
self‐assembly
selenization
strategies.
structure
provides
serves
as
physical
barrier,
mitigating
while
prevention
self‐stacking
ensures
maximal
exposure
Ni‐CoSe
provide
additional
active
sites
enhances
their
properties.
These
findings
corroborated
electrochemical
experiments
XRD
analysis,
demonstrating
significantly
improved
rate
capabilities
cycling
stability
LSBs
utilizing
functional
electrocatalyst.
This
study
presents
valuable
pathway
exploiting
structural
develop
high‐performance
LSBs.