Predicting Blood Glucose Levels with Organic Neuromorphic Micro‐Networks
Ibrahim Kurt,
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Imke Krauhausen,
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Simone Spolaor
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et al.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
11(27)
Published: April 29, 2024
Accurate
glucose
prediction
is
vital
for
diabetes
management.
Artificial
intelligence
and
artificial
neural
networks
(ANNs)
are
showing
promising
results
reliable
predictions,
offering
timely
warnings
fluctuations.
The
translation
of
these
software-based
ANNs
into
dedicated
computing
hardware
opens
a
route
toward
automated
insulin
delivery
systems
ultimately
enhancing
the
quality
life
diabetic
patients.
transforming
this
field,
potentially
leading
to
implantable
smart
devices
fully
pancreas.
However,
transition
presents
several
challenges,
including
need
specialized,
compact,
lightweight,
low-power
hardware.
Organic
polymer-based
electronics
solution
as
they
have
ability
implement
behavior
networks,
operate
at
low
voltage,
possess
key
attributes
like
flexibility,
stretchability,
biocompatibility.
Here,
study
focuses
on
implementing
systems.
How
minimize
network
requirements,
downscale
architecture,
integrate
with
electrochemical
neuromorphic
organic
devices,
meeting
strict
demands
implants
in-body
computation
investigated.
Language: Английский
All‐Polymer Organic Electrochemical Synaptic Transistor With Controlled Ionic Dynamics for High‐Performance Wearable and Sustainable Reservoir Computing
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 18, 2024
Abstract
Wearable
near/in‐sensor
neuromorphic
computing
is
driving
next‐generation
human‐artificial
intelligence
(AI)
interface,
the
Internet
of
Things,
and
intelligent
robots,
with
reservoir
(RC)
playing
a
pivotal
role
in
advancing
AI
hardware,
yet
its
potential
remains
underexplored.
Herein,
an
all‐polymer
accumulation‐mode
organic
electrochemical
synaptic
transistor
(OEST)
demonstrated
controlled
ionic
dynamics
that
can
facilitate
high‐performance
wearable
RC
while
allowing
entire
recyclability.
A
microporous
glycolated
conjugated
polymer
channel
(P3gCPDT‐1gT2)
affords
current
output
above
mA
level
at
<1
V
enables
both
volatile
non‐volatile
modes
combination
soft
poly(3,4‐ethylenedioxythiophene):poly(styrenesulfonate)
(PEDOT:PSS)/sorbitol
electrodes
electrolytes
(gelatin/glycerol).
Particularly,
modulation
OESTs
as
nonlinear
dynamic
reservoirs
are
elucidated
by
tuning
applied
voltages
gel
compositions.
Moreover,
such
device
exhibits
performance
preservation
over
>3000
bending
cycles
allows
convenient
recyclability
using
eco‐friendly
solvents.
sustainable
system
be
thus
established
configuring
units
for
data
processing
nonvolatile
weight
storage
single‐layer
perceptron
readout.
Such
simple
platform
achieves
up
to
90%
accuracy
voice
recognition
tasks
under
bending.
Thus,
this
work
facilitates
widespread
integration
multifunctional
electronic
hardware
implementing
information
low‐cost,
body‐conformable,
eco‐benign
features.
Language: Английский
AI-powered breakthroughs in material science and biomedical polymers
Journal of Bioactive and Compatible Polymers,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 23, 2024
This
commentary
examines
how
Artificial
Intelligence
(AI)
and
Machine
Learning
(ML)
are
transforming
biomedical
polymers,
drug
delivery
systems,
wearable
electronics,
smart
materials,
advanced
manufacturing,
neuromorphic
technologies.
AI
enhances
prediction
accuracy,
optimizes
material
properties,
accelerates
development,
enables
innovative
applications
such
as
biomaterials,
personalized
medicine,
tissue
engineering.
Specific
include
predicting
polymer
optimizing
release
kinetics,
improving
system
design,
creating
responsive
materials
for
devices.
also
advances
sensors,
flexible
3D/4D
printing,
sustainable
computing,
leading
to
breakthroughs
in
health
monitoring,
human-computer
interaction,
environmental
sustainability.
Language: Английский