Recent progress on artificial intelligence-enhanced multimodal sensors integrated devices and systems
Journal of Semiconductors,
Journal Year:
2025,
Volume and Issue:
46(1), P. 011610 - 011610
Published: Jan. 1, 2025
Abstract
Multimodal
sensor
fusion
can
make
full
use
of
the
advantages
various
sensors,
up
for
shortcomings
a
single
sensor,
achieve
information
verification
or
security
through
redundancy,
and
improve
reliability
safety
system.
Artificial
intelligence
(AI),
referring
to
simulation
human
in
machines
that
are
programmed
think
learn
like
humans,
represents
pivotal
frontier
modern
scientific
research.
With
continuous
development
promotion
AI
technology
Sensor
4.0
age,
multimodal
is
becoming
more
intelligent
automated,
expected
go
further
future.
this
context,
review
article
takes
comprehensive
look
at
recent
progress
on
AI-enhanced
sensors
their
integrated
devices
systems.
Based
concept
principle
technologies
algorithms,
theoretical
underpinnings,
technological
breakthroughs,
pragmatic
applications
fields
such
as
robotics,
healthcare,
environmental
monitoring
highlighted.
Through
comparative
study
dual/tri-modal
with
without
using
(especially
machine
learning
deep
learning),
highlight
potential
performance,
data
processing,
decision-making
capabilities.
Furthermore,
analyzes
challenges
opportunities
afforded
by
offers
prospective
outlook
forthcoming
advancements.
Language: Английский
Achieving a High-Output Direct-Current Droplet Triboelectric Generator via Synergistic Effects of a Dual Switch and Electric Double Layer
Hao Zhang,
No information about this author
Guozhang Dai,
No information about this author
Yuguang Luo
No information about this author
et al.
Nano Letters,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 6, 2025
Droplet
triboelectric
generators
(D-TENGs)
have
garnered
significant
attention
for
harvesting
raindrop
energy
but
face
challenges
such
as
low
output
performance
and
alternating
current
(AC)
output.
This
study
proposes
a
high-performance
direct
(DC)
D-TENG
with
dual-switch
(DS)
structure
(DS-DC-D-TENG)
that
synergizes
effects
electric
double
layers
(EDL)
to
generate
DC
pulses.
Remarkably,
using
0.1
mM
NaCl
droplets,
the
DS-DC-D-TENG
achieves
record-breaking
short-circuit
of
75
μA
polymer-based
DC-D-TENGs.
The
physical
mechanism
is
elucidated
through
an
equivalent
circuit
model
finite
element
method
(FEM)
simulation.
Unlike
conventional
designs,
it
directly
charges
capacitors
without
rectifier,
powers
integrated
systems
temperature
humidity
sensing
display,
can
be
used
self-powered
droplet
counter
measure
number
frequency,
showcasing
its
application
potential.
work
provides
novel
insights
into
design
future
applications
Language: Английский
A Signal Amplitude-Insensitive Triboelectric Touch Panel with a Significantly Reduced Signal Channel and Deep-Learning-Enhanced Robustness
Wei Xu,
No information about this author
Qingying Ren,
No information about this author
Qing‐Yun Chen
No information about this author
et al.
ACS Applied Materials & Interfaces,
Journal Year:
2024,
Volume and Issue:
16(42), P. 57843 - 57850
Published: Oct. 9, 2024
The
self-powered
triboelectric
touch
panel
has
garnered
considerable
research
attention
due
to
its
potential
reduce
system
energy
consumption
and
applications
in
human–machine
interfaces,
e-skin,
the
Internet
of
Things.
Current
methods
for
achieving
triboelectric-based
positioning
an
M
×
N
detection
pixel
array
typically
require
signal
amplitude
comparison
across
at
least
+
channels,
thereby
limiting
lightweight
design
possibilities.
In
contrast,
our
novel
"resistor
ladder"
approach
necessitates
only
4
channels
positioning.
This
method
leverages
a
lookup
table
correlating
positions
with
ratios
from
different
rendering
it
insensitive
significantly
enhancing
robustness.
We
fabricated
transparent
using
PET
tribomaterial,
where
surface
roughness
was
enhanced
through
plasma
treatment.
successfully
demonstrated
128
taps
within
sliding
predefined
table.
To
further
enhance
device
robustness,
2D
convolutional
neural
network
implemented,
which
achieved
impressive
accuracy
97.7%
even
under
artificially
introduced
defects.
study
represents
initial
exploration
amplitude-insensitive
methods,
reducing
number
required
robustness
panels.
Language: Английский