Biosensors,
Год журнала:
2025,
Номер
15(3), С. 179 - 179
Опубликована: Март 12, 2025
Three-dimensional
neuronal
organoids,
spheroids,
and
tissue
mimics
are
increasingly
used
to
model
cognitive
processes
in
vitro.
These
3D
constructs
also
the
effects
of
neurological
psychiatric
disorders
perform
computational
tasks.
The
brain’s
complex
network
neurons
is
activated
via
feedforward
sensory
pathways.
Therefore,
an
interface
that
models
pathway-like
inputs
desirable.
In
this
work,
optical
for
was
developed.
Dendrites
axons
extended
by
cortical
within
were
guided
into
microchannel-confined
bundles.
neurite
bundles
then
optogenetically
stimulated,
evoked
responses
evaluated
calcium
imaging.
Optical
stimulation
designed
deliver
distinct
input
patterns
construct,
mimicking
pathway
areas
intact
brain.
Responses
possessed
features
population
code,
including
separability
pattern
mixed
selectivity
individual
neurons.
This
work
represents
first
demonstration
a
activation
networks
constructs.
Another
innovation
development
all-optical
constructs,
which
does
not
require
use
expensive
microelectrode
arrays.
may
enable
investigations
information
processing.
It
studies
neurodegenerative
or
on
computation.
Signal Transduction and Targeted Therapy,
Год журнала:
2024,
Номер
9(1)
Опубликована: Апрель 26, 2024
The
induced
pluripotent
stem
cell
(iPSC)
technology
has
transformed
in
vitro
research
and
holds
great
promise
to
advance
regenerative
medicine.
iPSCs
have
the
capacity
for
an
almost
unlimited
expansion,
are
amenable
genetic
engineering,
can
be
differentiated
into
most
somatic
types.
been
widely
applied
model
human
development
diseases,
perform
drug
screening,
develop
therapies.
In
this
review,
we
outline
key
developments
iPSC
field
highlight
immense
versatility
of
modeling
therapeutic
applications.
We
begin
by
discussing
pivotal
discoveries
that
revealed
potential
a
nucleus
reprogramming
led
successful
generation
iPSCs.
consider
molecular
mechanisms
dynamics
as
well
numerous
methods
available
induce
pluripotency.
Subsequently,
discuss
various
iPSC-based
cellular
models,
from
mono-cultures
single
type
complex
three-dimensional
organoids,
how
these
models
elucidate
diseases.
use
examples
neurological
disorders,
coronavirus
disease
2019
(COVID-19),
cancer
diversity
disease-specific
phenotypes
modeled
using
iPSC-derived
cells.
also
used
high-throughput
screening
toxicity
studies.
Finally,
process
developing
autologous
allogeneic
therapies
their
alleviate
ACS Applied Materials & Interfaces,
Год журнала:
2024,
Номер
unknown
Опубликована: Апрель 4, 2024
Artificial
synaptic
devices
are
emerging
as
contenders
for
next-generation
computing
systems
due
to
their
combined
advantages
of
self-adaptive
learning
mechanisms,
high
parallel
computation
capabilities,
adjustable
memory
level,
and
energy
efficiency.
Optoelectronic
particularly
notable
responsiveness
both
voltage
inputs
light
exposure,
making
them
attractive
dynamic
modulation.
However,
engineering
with
reconfigurable
plasticity
multilevel
within
a
singular
configuration
present
fundamental
challenge.
Here,
we
have
established
an
organic
transistor-based
device
that
exhibits
volatile
nonvolatile
characteristics,
modulated
through
gate
together
stimuli.
Our
demonstrates
range
behaviors,
including
short/long-term
(STP
LTP)
well
STP–LTP
transitions.
Further,
encoding
unit,
it
delivers
exceptional
read
current
levels,
achieving
program/erase
ratio
exceeding
105,
excellent
repeatability.
Additionally,
prototype
4
×
matrix
potential
in
practical
neuromorphic
systems,
showing
capabilities
the
perception,
processing,
retention
image
inputs.
Nature Communications,
Год журнала:
2024,
Номер
15(1)
Опубликована: Янв. 22, 2024
Abstract
The
connection
patterns
of
neural
circuits
form
a
complex
network.
How
signaling
in
these
manifests
as
cognition
and
adaptive
behaviour
remains
the
central
question
neuroscience.
Concomitant
advances
connectomics
artificial
intelligence
open
fundamentally
new
opportunities
to
understand
how
shape
computational
capacity
biological
brain
networks.
Reservoir
computing
is
versatile
paradigm
that
uses
high-dimensional,
nonlinear
dynamical
systems
perform
computations
approximate
cognitive
functions.
Here
we
present
:
an
open-source
Python
toolbox
for
implementing
networks
modular,
allowing
arbitrary
network
architecture
dynamics
be
imposed.
allows
researchers
input
connectomes
reconstructed
using
multiple
techniques,
from
tract
tracing
noninvasive
diffusion
imaging,
impose
systems,
spiking
neurons
memristive
dynamics.
versatility
us
ask
questions
at
confluence
neuroscience
intelligence.
By
reconceptualizing
function
computation,
sets
stage
more
mechanistic
understanding
structure-function
relationships
Frontiers in Computational Neuroscience,
Год журнала:
2024,
Номер
18
Опубликована: Март 22, 2024
The
trend
in
industrial/service
robotics
is
to
develop
robots
that
can
cooperate
with
people,
interacting
them
an
autonomous,
safe
and
purposive
way.
These
are
the
fundamental
elements
characterizing
fourth
fifth
industrial
revolutions
(4IR,
5IR):
crucial
innovation
adoption
of
intelligent
technologies
allow
development
cyber-physical
systems
,
similar
if
not
superior
humans.
common
wisdom
intelligence
might
be
provided
by
AI
(Artificial
Intelligence),
a
claim
supported
more
media
coverage
commercial
interests
than
solid
scientific
evidence.
currently
conceived
quite
broad
sense,
encompassing
LLMs
lot
other
things,
without
any
unifying
principle,
but
self-motivating
for
success
various
areas.
current
view
mostly
follows
purely
disembodied
approach
consistent
old-fashioned,
Cartesian
mind-body
dualism,
reflected
software-hardware
distinction
inherent
von
Neumann
computing
architecture.
working
hypothesis
this
position
paper
road
next
generation
autonomous
robotic
agents
cognitive
capabilities
requires
fully
brain-inspired,
embodied
avoids
trap
dualism
aims
at
full
integration
Bodyware
Cogniware.
We
name
Artificial
Cognition
(ACo)
ground
it
Cognitive
Neuroscience.
It
specifically
focused
on
proactive
knowledge
acquisition
based
bidirectional
human-robot
interaction:
practical
advantage
enhance
generalization
explainability.
Moreover,
we
believe
brain-inspired
network
interactions
necessary
allowing
humans
artificial
agents,
building
growing
level
personal
trust
reciprocal
accountability:
clearly
missing,
although
actively
sought,
AI.
ACo
work
progress
take
number
research
threads,
some
antecedent
early
attempts
define
concepts
methods.
In
rest
will
consider
blocks
need
re-visited
unitary
framework:
principles
developmental
robotics,
methods
action
representation
prospection
capabilities,
role
social
interaction.
Cyborg and Bionic Systems,
Год журнала:
2024,
Номер
5
Опубликована: Янв. 1, 2024
Personalized
pain
medicine
aims
to
tailor
treatment
strategies
for
the
specific
needs
and
characteristics
of
an
individual
patient,
holding
potential
improving
outcomes,
reducing
side
effects,
enhancing
patient
satisfaction.
Despite
existing
markers
treatments,
challenges
remain
in
understanding,
detecting,
treating
complex
conditions.
Here,
we
review
recent
engineering
efforts
developing
various
sensors
devices
addressing
personalized
pain.
We
summarize
basics
pathology
introduce
monitoring,
assessment,
relief.
also
discuss
advancements
taking
advantage
rapidly
medical
artificial
intelligence
(AI),
such
as
AI-based
analgesia
devices,
wearable
sensors,
healthcare
systems.
believe
that
these
innovative
technologies
may
lead
more
precise
responsive
medicine,
greatly
improved
quality
life,
increased
efficiency
systems,
incidence
addiction
substance
use
disorders.
Nature Communications,
Год журнала:
2024,
Номер
15(1)
Опубликована: Июнь 20, 2024
Abstract
Characterization
and
modeling
of
biological
neural
networks
has
emerged
as
a
field
driving
significant
advancements
in
our
understanding
brain
function
related
pathologies.
As
today,
pharmacological
treatments
for
neurological
disorders
remain
limited,
pushing
the
exploration
promising
alternative
approaches
such
electroceutics.
Recent
research
bioelectronics
neuromorphic
engineering
have
fostered
development
new
generation
neuroprostheses
repair.
However,
achieving
their
full
potential
necessitates
deeper
biohybrid
interaction.
In
this
study,
we
present
novel
real-time,
biomimetic,
cost-effective
user-friendly
network
capable
real-time
emulation
experiments.
Our
system
facilitates
investigation
replication
biophysically
detailed
dynamics
while
prioritizing
cost-efficiency,
flexibility
ease
use.
We
showcase
feasibility
conducting
experiments
using
standard
biophysical
interfaces
variety
cells
well
diverse
configurations.
envision
crucial
step
towards
neuromorphic-based
bioelectrical
therapeutics,
enabling
seamless
communication
with
on
comparable
timescale.
Its
embedded
functionality
enhances
practicality
accessibility,
amplifying
its
real-world
applications
Frontiers in Artificial Intelligence,
Год журнала:
2024,
Номер
7
Опубликована: Май 2, 2024
Wetware
computing
and
organoid
intelligence
is
an
emerging
research
field
at
the
intersection
of
electrophysiology
artificial
intelligence.
The
core
concept
involves
using
living
neurons
to
perform
computations,
similar
how
Artificial
Neural
Networks
(ANNs)
are
used
today.
However,
unlike
ANNs,
where
updating
digital
tensors
(weights)
can
instantly
modify
network
responses,
entirely
new
methods
must
be
developed
for
neural
networks
biological
neurons.
Discovering
these
challenging
requires
a
system
capable
conducting
numerous
experiments,
ideally
accessible
researchers
worldwide.
For
this
reason,
we
hardware
software
that
allows
electrophysiological
experiments
on
unmatched
scale.
Neuroplatform
enables
run
organoids
with
lifetime
even
more
than
100
days.
To
do
so,
streamlined
experimental
process
quickly
produce
organoids,
monitor
action
potentials
24/7,
provide
electrical
stimulations.
We
also
designed
microfluidic
fully
automated
medium
flow
change,
thus
reducing
disruptions
by
physical
interventions
in
incubator
ensuring
stable
environmental
conditions.
Over
past
three
years,
was
utilized
over
1,000
brain
enabling
collection
18
terabytes
data.
A
dedicated
Application
Programming
Interface
(API)
has
been
conduct
remote
directly
via
our
Python
library
or
interactive
compute
such
as
Jupyter
Notebooks.
In
addition
operations,
API
controls
pumps,
cameras
UV
lights
molecule
uncaging.
This
execution
complex
24/7
including
closed-loop
strategies
processing
latest
deep
learning
reinforcement
libraries.
Furthermore,
infrastructure
supports
use.
Currently
2024,
freely
available
purposes,
groups
have
begun
it
their
experiments.
article
outlines
system’s
architecture
provides
specific
examples
results.
The
scientific
relationship
between
neuroscience
and
artificial
intelligence
is
generally
acknowledged,
the
role
that
their
long
history
of
collaboration
has
played
in
advancing
both
fields
often
emphasized.
Beyond
important
insights
provided
by
collaborative
development,
AI
raise
a
number
ethical
issues
are
explored
neuroethics
ethics.
Neuroethics
ethics
have
been
gaining
prominence
last
few
decades,
they
typically
carried
out
different
research
communities.
However,
considering
evolving
landscape
AI-assisted
neurotechnologies
various
conceptual
practical
intersections
neuroscience-such
as
increasing
application
neuroscientific
research,
healthcare
neurological
mental
diseases,
use
knowledge
inspiration
for
AI-some
scholars
now
calling
these
two
domains.
This
article
seeks
to
explore
how
can
stimulate
theoretical
and,
ideally,
governance
efforts.
First,
we
offer
some
reasons
reflection
on
innovations
AI.
Next,
dimensions
think
could
be
enhanced
cross-fertilization
subfields
We
believe
pace
fusion
development
innovations,
broad
underspecified
calls
responsibility
do
not
consider
from
will
only
partially
successful
promoting
meaningful
changes
applications.
Neurocomputing,
Год журнала:
2024,
Номер
584, С. 127598 - 127598
Опубликована: Март 24, 2024
This
paper
introduces
Elegans-AI
models,
a
class
of
neural
networks
that
leverage
the
connectome
topology
Caenorhabditis
elegans
to
design
deep
and
reservoir
architectures.
Utilizing
learning
models
inspired
by
connectome,
this
leverages
evolutionary
selection
process
consolidate
functional
arrangement
biological
neurons
within
their
networks.
The
initial
goal
involves
conversion
natural
connectomes
into
artificial
representations.
second
objective
centers
on
embedding
complex
circuitry
both
networks,
highlighting
neural-dynamic
short-term
long-term
memory
capabilities.
Lastly,
our
third
aims
establish
structural
explainability
examining
heterophilic/homophilic
properties
impact
In
study,
demonstrate
superior
performance
compared
similar
utilize
either
randomly
rewired
or
simulated
bio-plausible
ones.
Notably,
these
achieve
top-1
accuracy
99.99%
Cifar10
Cifar100,
99.84%
MNIST
Unsup.
They
do
with
significantly
fewer
parameters,
particularly
when
configurations
are
used.
Our
findings
indicate
clear
connection
between
network
patterns,
small-world
characteristic,
outcomes,
emphasizing
significant
role
optimization
in
shaping
for
improved
performance.