Recent advances and applications of artificial intelligence in 3D bioprinting
Biophysics Reviews,
Journal Year:
2024,
Volume and Issue:
5(3)
Published: July 19, 2024
3D
bioprinting
techniques
enable
the
precise
deposition
of
living
cells,
biomaterials,
and
biomolecules,
emerging
as
a
promising
approach
for
engineering
functional
tissues
organs.
Meanwhile,
recent
advances
in
researchers
to
build
vitro
models
with
finely
controlled
complex
micro-architecture
drug
screening
disease
modeling.
Recently,
artificial
intelligence
(AI)
has
been
applied
different
stages
bioprinting,
including
medical
image
reconstruction,
bioink
selection,
printing
process,
both
classical
AI
machine
learning
approaches.
The
ability
handle
datasets,
make
computations,
learn
from
past
experiences,
optimize
processes
dynamically
makes
it
an
invaluable
tool
advancing
bioprinting.
review
highlights
current
integration
discusses
future
approaches
harness
synergistic
capabilities
developing
personalized
Language: Английский
Advances and Challenges in 3D Bioprinted Cancer Models: Opportunities for Personalized Medicine and Tissue Engineering
Sai Liu,
No information about this author
Pan Jin
No information about this author
Polymers,
Journal Year:
2025,
Volume and Issue:
17(7), P. 948 - 948
Published: March 31, 2025
Cancer
is
the
second
leading
cause
of
death
worldwide,
after
cardiovascular
disease,
claiming
not
only
a
staggering
number
lives
but
also
causing
considerable
health
and
economic
devastation,
particularly
in
less-developed
countries.
Therapeutic
interventions
are
impeded
by
differences
patient-to-patient
responses
to
anti-cancer
drugs.
A
personalized
medicine
approach
crucial
for
treating
specific
patient
groups
includes
using
molecular
genetic
screens
find
appropriate
stratifications
patients
who
will
respond
(and
those
not)
treatment
regimens.
However,
information
on
which
risk
stratification
method
can
be
used
hone
cancer
types
likely
responders
agent
remains
elusive
most
cancers.
Novel
developments
3D
bioprinting
technology
have
been
widely
applied
recreate
relevant
bioengineered
tumor
organotypic
structures
capable
mimicking
human
tissue
microenvironment
or
adequate
drug
high-throughput
screening
settings.
Parts
autogenously
printed
form
tissues
computer-aided
design
concept
where
multiple
layers
include
different
cell
compatible
biomaterials
build
configurations.
Patient-derived
stromal
cells,
together
with
material,
extracellular
matrix
proteins,
growth
factors,
create
bioprinted
models
that
provide
possible
platform
new
therapies
advance.
Both
natural
synthetic
biopolymers
encourage
cells
biological
materials
models/implants.
These
may
facilitate
physiologically
cell-cell
cell-matrix
interactions
heterogeneity
resembling
real
tumors.
Language: Английский
Leveraging advanced graph neural networks for the enhanced classification of post anesthesia states to aid surgical procedures
Dong-Ge Niu,
No information about this author
Renxin Ru,
No information about this author
Jiasheng Zhang
No information about this author
et al.
PLoS ONE,
Journal Year:
2025,
Volume and Issue:
20(4), P. e0320299 - e0320299
Published: April 25, 2025
Anesthesia
plays
a
pivotal
role
in
modern
surgery
by
facilitating
controlled
states
of
unconsciousness.
Precise
control
is
crucial
for
safe
and
pain-free
surgeries.
Monitoring
anesthesia
depth
accurately
essential
to
guide
anesthesiologists,
optimize
drug
usage,
mitigate
postoperative
complications.
This
study
focuses
on
enhancing
the
classification
performance
anesthesia-induced
transitions
between
wakefulness
deep
sleep
into
eight
classes
leveraging
advanced
graph
neural
network
(GNN).
The
research
combines
seven
datasets
single
dataset
comprising
290
samples
investigates
key
brain
regions,
develop
robust
framework.
Initially,
augmented
using
Synthetic
Minority
Over-sampling
Technique
(SMOTE)
expand
sample
size
1197.
A
graph-based
approach
employed
get
intricate
relationships
features,
constructing
with
1197
nodes
714,610
edges,
where
represent
data
edges
are
connections
nodes.
connection
(edge
weight)
calculated
Spearman
correlation
coefficient
matrix.
An
optimized
GNN
model
developed
through
an
ablation
hyperparameters,
achieving
accuracy
92.8%.
model’s
further
evaluated
against
one-dimensional
(1D)
CNN,
six
machine
learning
models,
demonstrating
superior
capabilities
small
imbalanced
datasets.
Additionally,
we
proposed
different
datasets,
observing
no
decline
performance.
work
advances
understanding
states,
providing
valuable
tool
improved
management.
Language: Английский