ACS Applied Materials & Interfaces,
Journal Year:
2024,
Volume and Issue:
16(5), P. 6098 - 6112
Published: Jan. 24, 2024
The
optimal
combination
of
metal
ions
and
ligands
for
sensing
materials
was
estimated
by
using
a
data-driven
model
developed
in
this
research.
This
utilized
advanced
computational
algorithms
data
set
100,000
literature
pieces.
semiconductor
oxide
(SMO)
that
is
most
suitable
detecting
triethylamine
(TEA)
with
the
highest
probability
identified
Word2vec
model,
which
employed
maximum
likelihood
method.
loss
function
distribution
minimized
process.
Based
on
analysis,
novel
hierarchical
nanostructured
tungsten-based
coordination
2,5-dihydroxyterephthalic
acid
(W-DHTA)
synthesized.
synthesis
involved
postsynthetic
hydrothermal
treatment
(psHT)
self-assembly
tungsten
nanorods.
nanorods
had
significant
number
oxygen
vacancies.
Various
techniques
were
used
to
characterize
synthesized
material,
its
performance
toward
volatile
organic
compound
(VOC)
gases
evaluated.
results
showed
functionalized
exhibited
an
exceptionally
high
sensitivity
selectivity
TEA
gas.
Even
highly
disturbed
environment,
detection
limit
gas
as
low
40
parts
per
billion
(ppb).
Furthermore,
our
findings
suggest
control
vacancies
plays
crucial
role
enhancing
sensors.
approach
supported
utilization
density
functional
theory
(DFT)
computation
machine
learning
assess
analyze
sensor
devices,
providing
efficient
universally
applicable
research
methodology
development
design
next-generation
materials.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(16)
Published: Jan. 23, 2024
Abstract
With
the
commercialization
of
first‐generation
flexible
mobiles
and
displays
in
late
2010s,
humanity
has
stepped
into
age
electronics.
Inevitably,
soft
multifunctional
sensors,
as
essential
components
next‐generation
electronics,
have
attracted
tremendous
research
interest
like
never
before.
This
review
is
dedicated
to
offering
an
overview
latest
emerging
trends
sensors
their
accordant
future
development
(R&D)
directions
for
coming
decade.
First,
key
characteristics
predominant
target
stimuli
are
highlighted.
Second,
important
selection
criteria
introduced.
Next,
materials/structures
identified.
Specifically,
R&D
these
envisaged
based
on
trends,
namely
i)
decoupling
multiple
stimuli,
ii)
data
processing,
iii)
skin
conformability,
iv)
energy
sources.
Finally,
challenges
potential
opportunities
discussed,
new
insights
prospects
fast‐emerging
technology.
Chemical Engineering Journal,
Journal Year:
2023,
Volume and Issue:
480, P. 147981 - 147981
Published: Dec. 12, 2023
To
explore
the
potential
of
Ti3C2Tx-MXenes
as
an
electrode
over
traditional
metals,
we
designed
a
high-performance
and
cost-effective
humidity
sensor
using
2D
Ti3C2Tx
MXene
nanosheets
(TMNSs)
electrodes
Graphene
oxide
(GO)
sensing
layer.
The
was
fabricated
on
flexible
transparent
Cyclic
Olefin
Copolymer
(COC)
substrate
UV-photolithography,
spin
coating,
spray
coating
techniques.
Electrical
impedance
measurements
demonstrated
sensor's
remarkable
sensitivity
to
humidity,
with
response
range
6
%
97
at
frequencies
1
kHz
10
kHz.
exhibited
fast
recovery
times
0.8
s
0.9
s,
respectively,
maintained
stable
performance
24
h.
We
further
employed
DFT
simulations
establish
atomic
level
understanding
sensing.
findings
presence
physical
bond
between
hydrogen
(H)
oxygen
(O)
atoms,
which
are
part
water
molecule
OH
group,
in
process
Furthermore,
OH-configuration
graphene
acts
main
active
site
sensing,
outperforming
O-configuration,
due
its
higher
adsorption
energy
charge
transfer.
Moreover,
real-world
applications
for
this
materials-based
were
demonstrated,
including
non-contact
proximity
human
breathing
detection,
demonstrating
potential.
This
study
makes
substantial
contribution
development
low-cost
sensors
based
materials,
implications
wide
applications.
Sensors,
Journal Year:
2023,
Volume and Issue:
23(2), P. 817 - 817
Published: Jan. 10, 2023
The
emergence
and
advancement
of
flexible
electronics
have
great
potential
to
lead
development
trends
in
many
fields,
such
as
“smart
electronic
skin”
wearable
electronics.
By
acting
intermediates
detect
a
variety
external
stimuli
or
physiological
parameters,
sensors
are
regarded
core
component
systems
been
extensively
studied.
Unlike
conventional
rigid
requiring
costly
instruments
complicated
fabrication
processes,
can
be
manufactured
by
simple
procedures
with
excellent
production
efficiency,
reliable
output
performance,
superior
adaptability
the
irregular
surface
surroundings
where
they
applied.
Here,
recent
studies
on
for
sensing
humidity
strain/pressure
outlined,
emphasizing
their
sensory
materials,
working
mechanisms,
structures,
methods,
particular
applications.
Furthermore,
conclusion,
including
future
perspectives
short
overview
market
share
this
field,
is
given
further
advancing
field
research.
Green Chemistry,
Journal Year:
2024,
Volume and Issue:
26(9), P. 5022 - 5102
Published: Jan. 1, 2024
This
tutorial
review
provides
a
comprehensive
and
authoritative
summary
on
the
exciting
research
activities
in
fields
of
poly(ionic
liquid)s
(PILs),
covering
their
synthesis
applications
number
areas.
Communications Materials,
Journal Year:
2024,
Volume and Issue:
5(1)
Published: March 20, 2024
Abstract
Within
the
breath
lie
numerous
health
indicators,
encompassing
respiratory
patterns
and
biomarkers
extending
beyond
conditions
to
cardiovascular
health.
Recently,
emergence
of
SARS-CoV-2
pandemic
has
not
only
underscored
necessity
on-the-spot
analysis
but
also
normalized
use
masks
in
everyday
life.
Simultaneously,
rapid
evolution
wearable
technology
given
rise
innovative
healthcare
monitoring
tools,
with
a
specific
emphasis
on
sensors.
This
review
explores
current
research
trends
utilizing
breathing
sensors
detect
diverse
monitor
parameters,
including
airflow,
temperature,
humidity.
Additionally,
it
applications,
ranging
from
recognizing
swiftly
detecting
diseases.
Integrating
Internet
Things
machine
learning
technologies
into
these
applications
highlights
their
potential
offer
personalized,
accurate,
efficient
solution.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(18)
Published: Jan. 3, 2024
Wearable
humidity
sensors
are
attracting
strong
attention
as
they
allow
for
real-time
and
continuous
monitoring
of
important
physiological
information
by
enabling
activity
tracking
well
air
quality
assessment.
Amongst
2Dimensional
(2D)
materials,
graphene
oxide
(GO)
is
very
attractive
sensing
due
to
its
tuneable
surface
chemistry,
high
area,
processability
in
water,
easy
integration
onto
flexible
substrates.
However,
hysteresis,
low
sensitivity,
cross-sensitivity
issues
limit
the
use
GO
practical
applications,
where
preferred.
Herein,
a
wearable
wireless
impedance-based
sensor
made
with
pyrene-functionalized
hexagonal
boron
nitride
(h-BN)
nanosheets
demonstrated.
The
device
shows
enhanced
sensitivity
towards
relative
(RH)
(>10
