Tissue Engineering Part A,
Journal Year:
2024,
Volume and Issue:
30(19-20), P. 662 - 680
Published: Aug. 13, 2024
Biomaterials
often
have
subtle
properties
that
ultimately
drive
their
bespoke
performance.
Given
this
nuanced
structure-function
behavior,
the
standard
scientific
approach
of
one
experiment
at
a
time
or
design
methods
is
largely
inefficient
for
discovery
complex
biomaterials.
More
recently,
high-throughput
experimentation
coupled
with
machine
learning
has
matured
beyond
expert
users
allowing
scientists
and
engineers
from
diverse
backgrounds
to
access
these
powerful
data
science
tools.
As
result,
we
now
opportunity
strategically
utilize
all
available
experiments
train
efficacious
models
map
behavior
biomaterials
discovery.
Herein,
discuss
necessary
shift
data-driven
determination
as
highlight
how
leveraged
in
identifying
physicochemical
cues
tissue
engineering,
gene
delivery,
drug
protein
stabilization,
antifouling
materials.
We
also
data-mining
approaches
are
biomaterial
functions
reduce
load
on
experimental
faster
Ultimately,
harnessing
prowess
will
lead
accelerated
development
optimal
designs.
Polymers,
Journal Year:
2025,
Volume and Issue:
17(9), P. 1212 - 1212
Published: April 28, 2025
Over
the
past
three
decades,
biodegradable
polymer
known
as
poly(propylene
fumarate)
(PPF)
has
been
subject
of
numerous
research
due
to
its
unique
properties.
Its
biocompatibility
and
controllable
mechanical
properties
have
encouraged
scientists
manufacture
produce
a
wide
range
PPF-based
materials
for
biomedical
purposes.
Additionally,
ability
tailor
degradation
rate
scaffold
material
match
new
bone
tissue
formation
is
particularly
relevant
in
engineering,
where
synchronized
regeneration
are
critical
effective
healing.
This
review
thoroughly
summarizes
advancements
different
approaches
PPF
composite
preparation
engineering.
challenges
faced
by
each
approach,
such
biocompatibility,
degradation,
features,
crosslinking,
were
emphasized,
noteworthy
benefits
most
pertinent
synthesis
strategies
highlighted.
Furthermore,
synergistic
outcome
between
engineering
artificial
intelligence
(AI)
was
addressed,
along
with
advantages
brought
implication
machine
learning
(ML)
well
revolutionary
impact
on
regenerative
medicines.
Future
advances
could
be
facilitated
enormous
potential
individualized
successful
treatments
that
arise
from
combination
intelligence.
By
assessing
patient's
reaction
certain
drug
choosing
best
course
action
depending
genetic
clinical
characteristics,
AI
can
also
assist
treatment
illnesses.
used
discovery,
target
identification,
trial
design,
predicting
safety
effectiveness
novel
medications.
Still,
there
ethical
issues
including
data
protection
requirement
reliable
management
systems.
adoption
healthcare
sector
expensive,
involving
staff
facility
investments
training
professionals
application.
ACS Applied Bio Materials,
Journal Year:
2023,
Volume and Issue:
7(2), P. 617 - 625
Published: March 27, 2023
Computer-aided
molecular
design
and
protein
engineering
emerge
as
promising
active
subjects
in
bioengineering
biotechnological
applications.
On
one
hand,
due
to
the
advancing
computing
power
past
decade,
modeling
toolkits
force
fields
have
been
put
use
for
accurate
multiscale
of
biomolecules
including
lipid,
protein,
carbohydrate,
nucleic
acids.
other
machine
learning
emerges
a
revolutionary
data
analysis
tool
that
promises
leverage
physicochemical
properties
structural
information
obtained
from
order
build
quantitative
structure–function
relationships.
We
review
recent
computational
works
utilize
state-of-the-art
methods
engineer
peptides
proteins
various
emerging
biomedical,
antimicrobial,
antifreeze
also
discuss
challenges
possible
future
directions
toward
developing
roadmap
efficient
biomolecular
engineering.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
34(8)
Published: Oct. 27, 2023
Abstract
The
development
of
new
polymer
materials
is
an
emerging
field
for
more
than
100
years.
However,
it
currently
facing
major
challenges
and
the
application
digital
methods
can
help
to
develop
processes,
discover
and,
thus,
contribute
today
future.
Though,
in
science
very
limited,
when
compared
other
classes
such
as
small
molecules
or
inorganic
high‐performance
materials.
Nevertheless,
there
are
already
first,
promising
approaches.
current
review
article
focuses
on
these
different
aspects
research
including
design,
synthesis,
characterization.
Furthermore,
discovery
engineering
highlighted
detail
showing
broad
range
potential
applications
science.
Finally,
future
possibilities
opportunities
derived
from
state‐of‐the‐art
perspectives
a
evolution
provided.
Tissue Engineering Part A,
Journal Year:
2024,
Volume and Issue:
30(19-20), P. 662 - 680
Published: Aug. 13, 2024
Biomaterials
often
have
subtle
properties
that
ultimately
drive
their
bespoke
performance.
Given
this
nuanced
structure-function
behavior,
the
standard
scientific
approach
of
one
experiment
at
a
time
or
design
methods
is
largely
inefficient
for
discovery
complex
biomaterials.
More
recently,
high-throughput
experimentation
coupled
with
machine
learning
has
matured
beyond
expert
users
allowing
scientists
and
engineers
from
diverse
backgrounds
to
access
these
powerful
data
science
tools.
As
result,
we
now
opportunity
strategically
utilize
all
available
experiments
train
efficacious
models
map
behavior
biomaterials
discovery.
Herein,
discuss
necessary
shift
data-driven
determination
as
highlight
how
leveraged
in
identifying
physicochemical
cues
tissue
engineering,
gene
delivery,
drug
protein
stabilization,
antifouling
materials.
We
also
data-mining
approaches
are
biomaterial
functions
reduce
load
on
experimental
faster
Ultimately,
harnessing
prowess
will
lead
accelerated
development
optimal
designs.