Journal of Materials Chemistry A,
Journal Year:
2023,
Volume and Issue:
11(39), P. 20872 - 20885
Published: Jan. 1, 2023
This
highlight
focuses
on
the
advancements
in
high-entropy
coordination
compounds
and
their
derivatives.
It
explores
synthesis
strategies,
effectiveness
catalyzing
water
electrolysis,
electrochemical
performance
secondary
batteries.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(32)
Published: June 19, 2024
Abstract
Common
precursors
for
carbon
materials
typically
include
petroleum‐based
polymers
or
MOF
materials.
However,
these
often
encounter
challenges
such
as
metal
aggregation,
high
cost,
and
metals
leaching.
In
this
work,
a
novel
of
approach
lignin‐metal
supramolecular
framework
complex
(MSF@Lignin)
is
introduced.
These
complexes
are
formed
through
oxidative
ammonolysis
lignin
(OAL)
to
synthesize
nitrogen‐doped
carbon‐encapsulated
CoRu
nanocatalyst
(CoRu@OALC)
via
in
situ
carbonization.
CoRu@OALC
exhibited
exceptional
performance
both
HER
(90
mV)
OER
(200
at
the
current
density
10
mA
cm
−2
,
with
an
overall
water
splitting
voltage
1.5
V
outstanding
stability
under
density.
During
pyrolysis
process,
became
encapsulated
by
lignin‐derived
carbon,
occurring
within
temperature
range
600–700
°C.
catalytic
active
sites
primarily
located
defects
showcasing
unique
“self‐healing”
phenomenon
layer.
Oxygen‐containing
intermediates
(
*
OH,
O,
OOH)
facilitated
reconstruction
on
layer,
while
hydrogen‐containing
H)
contributed
reappearance
defect‐rich
structure.
ACS Sensors,
Journal Year:
2024,
Volume and Issue:
9(5), P. 2585 - 2595
Published: April 20, 2024
Achieving
ultrasensitive
and
rapid
detection
of
3-methylbutyraldehyde
is
crucial
for
monitoring
chemical
intermediate
leakage
in
pharmaceutical
industries
as
well
diagnosing
ventilator-associated
pneumonia
by
exhaled
gas.
However,
developing
a
sensitive
method
detecting
poses
challenges.
Herein,
wireless
chemiresistive
gas
sensor
based
on
mesoporous
ZnO–SnO2
heterostructure
fabricated
to
enable
the
first
time.
The
exhibits
uniform
spherical
shape
(∼79
nm
diameter),
high
specific
surface
area
(54.8
m2
g–1),
small
crystal
size
(∼4
nm),
large
pore
(6.7
nm).
demonstrates
response
(18.98@20
ppm),
short
response/recovery
times
(13/13
s),
low
limit
(0.48
ppm)
toward
3-methylbutyraldehyde.
Furthermore,
real-time
system
developed
utilizing
microelectromechanical
systems
sensors.
modification
amorphous
ZnO
SnO2
wall
can
effectively
increase
chemisorbed
oxygen
content
thickness
electron
depletion
layer
at
gas–solid
interface,
which
facilitates
interface
redox
reaction
enhances
sensing
performance.
This
work
presents
an
initial
example
semiconductor
metal
oxide
sensors
efficient
that
holds
great
potential
ensuring
safety
during
production
disease
diagnosis.
Small,
Journal Year:
2022,
Volume and Issue:
19(3)
Published: Nov. 1, 2022
Abstract
Current
diabetic
wound
treatments
remain
unsatisfactory
due
to
the
lack
of
a
comprehensive
strategy
that
can
integrate
strong
applicability
(tissue
adhesiveness,
shape
adaptability,
fast
self‐healability,
and
facile
dressing
change)
with
initiation
smooth
connection
cascade
healing
processes.
Herein,
benefiting
from
multifaceted
bonding
ability
tannic
acid
metal
ions
various
polymers,
family
tannin–europium
coordination
complex
crosslinked
citrate‐based
mussel‐inspired
bioadhesives
(TE‐CMBAs)
are
specially
developed
for
healing.
TE‐CMBAs
gel
instantly
(<
60
s),
possess
favorable
shape‐adaptability,
considerable
mechanical
strengths,
high
elasticity,
wet
tissue
adhesiveness
(≈40
kPa),
photothermal
antimicrobial
activity,
excellent
anti‐oxidant
biocompatibility,
angiogenetic
property.
The
reversible
hydrogen
bond
crosslinking
sensitive
metal–phenolic
also
confers
pH‐responsive
europium
ion
TA
releasing
properties
on‐demand
removability
upon
mixing
borax
solution,
enabling
convenient
painless
change
inflammatory
microenvironment
modulation,
angiogenesis
promotion,
effective
extracellular
matrix
production
leveraging
acidic
pH
condition
wounds.
This
adhesive
provides
regenerative
management
be
extended
other
complicated
scenarios.
ACS Sensors,
Journal Year:
2022,
Volume and Issue:
7(12), P. 3963 - 3972
Published: Dec. 13, 2022
Formaldehyde
(HCHO)
is
a
prevalent
indoor
gas
pollutant
that
has
been
seriously
endangering
human
health.
Developing
semiconductor
metal
oxide
(SMO)
sensors
for
selective
measurement
of
formaldehyde
at
low
working
temperatures
remains
great
challenge.
In
this
work,
silver/tin–polyphenol
hybrid
spheres
are
applied
as
sacrificial
template
the
fabrication
spherical
mesoporous
Ag2O/SnO2
sensing
materials.
The
obtained
have
uniform
particle
size
(∼80
nm),
large
pore
(5.8
and
high
specific
surface
area
(71.3
m2
g–1).
response
140
toward
(10
ppm)
temperature
(75
°C).
detection
limit
reaches
level
23.6
ppb.
Most
importantly,
it
excellent
selectivity
interfering
gases.
When
concentration
(e.g.,
ethanol)
5
times
formaldehyde,
little
affected.
Theoretical
calculations
suggest
addition
Ag2O
can
significantly
enhance
adsorption
energy
thus
improving
performance.
This
work
demonstrates
an
efficient
self-template
synthesis
strategy
noble
catalyst-decorated
spheres,
which
could
boost
performance
lower
temperature.
ACS Sensors,
Journal Year:
2023,
Volume and Issue:
8(10), P. 3723 - 3732
Published: Aug. 23, 2023
Glutaraldehyde
disinfectant
has
been
widely
applied
in
aquaculture,
farming,
and
medical
treatment.
Excessive
concentrations
of
glutaraldehyde
the
environment
can
lead
to
serious
health
hazards.
Therefore,
it
is
extremely
important
develop
high-performance
sensors
with
low
cost,
high
sensitivity,
rapid
response,
fabulous
selectivity,
limit
detection.
Herein,
mesoporous
lanthanum
(La)
doped
SnO2
spheres
specific
surface
area
(52-59
m2
g-1),
uniform
mesopores
(with
a
pore
size
concentrated
at
5.7
nm),
highly
crystalline
frameworks
are
designed
fabricate
sensitive
gas
toward
gaseous
glutaraldehyde.
The
lanthanum-doped
exhibit
excellent
glutaraldehyde-sensing
performance,
including
response
(13.5@10
ppm),
time
(28
s),
detection
0.16
ppm.
sensing
performance
ascribed
area,
contents
chemisorbed
oxygen
species,
doping.
DFT
calculations
suggest
that
doping
lattice
effectively
improve
adsorption
energy
compared
pure
materials.
Moreover,
fabricated
detect
commercial
disinfectants,
indicating
potential
application