Advanced Science,
Journal Year:
2023,
Volume and Issue:
10(26)
Published: July 3, 2023
The
field
of
biomedical
design
and
manufacturing
has
been
rapidly
evolving,
with
implants
grafts
featuring
complex
3D
constraints
materials
distributions.
By
combining
a
new
coding-based
modeling
approach
high-throughput
volumetric
printing,
is
demonstrated
to
transform
the
way
shapes
are
designed
fabricated
for
applications.
Here,
an
algorithmic
voxel-based
used
that
can
generate
large
library
porous
structures,
auxetic
meshes
cylinders,
or
perfusable
constructs.
deploying
finite
cell
within
framework,
arrays
selected
designs
be
computationally
modeled.
Finally,
schemes
in
conjunction
approaches
multi-material
printing
based
on
thiol-ene
photoclick
chemistry
fabricate
heterogeneous
shapes.
Collectively,
design,
fabrication
techniques
toward
wide
spectrum
products
such
as
actuators,
grafts,
tissue
disease
models.
Small,
Journal Year:
2022,
Volume and Issue:
18(36)
Published: June 17, 2022
The
regeneration
of
3D
tissue
constructs
with
clinically
relevant
sizes,
structures,
and
hierarchical
organizations
for
translational
engineering
remains
challenging.
printing,
an
additive
manufacturing
technique,
has
revolutionized
the
field
by
fabricating
biomimetic
precisely
controlled
composition,
spatial
distribution,
architecture
that
can
replicate
both
biological
functional
native
tissues.
Therefore,
printing
is
gaining
increasing
attention
as
a
viable
option
to
advance
personalized
therapy
various
diseases
regenerating
desired
This
review
outlines
recently
developed
techniques
clinical
translation
specifically
summarizes
applications
these
approaches
cartilage,
bone,
osteochondral
current
challenges
future
perspectives
technology
are
also
discussed.
Advanced Science,
Journal Year:
2022,
Volume and Issue:
9(22)
Published: May 18, 2022
3D
printing
has
revolutionized
the
manufacturing
of
volumetric
components
and
structures
in
many
areas.
Several
fully
light-based
techniques
have
been
recently
developed
thanks
to
advent
photocurable
resins,
promising
reach
unprecedented
short
print
time
(down
a
few
tens
seconds)
while
keeping
good
resolution
(around
100
μm).
However,
these
new
approaches
only
work
with
homogeneous
relatively
transparent
resins
so
that
light
patterns
used
for
photo-polymerization
are
not
scrambled
along
their
propagation.
Herein,
method
takes
into
account
scattering
resin
prior
computing
projection
is
proposed.
Using
tomographic
printer,
it
experimentally
demonstrated
implementation
this
correction
critical
when
objects
whose
size
exceeds
mean
free
path.
To
show
broad
applicability
technique,
functional
high
fidelity
fabricated
hard
organic
acrylates
soft
cell-laden
hydrogels
(at
4
million
cells
mL-1
).
This
opens
up
perspectives
inside
turbid
materials
particular
interesting
applications
bioprinting
constructs.
Pharmaceutics,
Journal Year:
2022,
Volume and Issue:
14(2), P. 464 - 464
Published: Feb. 21, 2022
Skin
tissue
engineering
and
regeneration
aim
at
repairing
defective
skin
injuries
progress
in
wound
healing.
Until
now,
even
though
several
developments
are
made
this
field,
it
is
still
challenging
to
face
the
complexity
of
with
current
methods
fabrication.
In
review,
short,
state-of-the-art
on
using
3D
bioprinting
as
a
new
tool
described.
The
summary
bioink
formulations,
parameters,
properties
discussed.
Finally,
representative
number
examples
advances
field
together
limitations
future
needs
provided.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
34(20)
Published: April 23, 2023
Abstract
Light‐based
3D
printing
has
received
significant
attention
due
to
several
advantages
including
high
speed
and
resolution.
Along
with
the
development
of
new
technologies,
material
design
is
key
for
next
generation
light‐based
printing.
Conventional
printable
polymeric
materials,
also
known
as
photopolymers
or
photoresins,
often
lead
thermosets–polymer
networks
cross‐linked
by
permanent
covalent
bonds
which
bring
limited
adaptability
restricted
reprocessability.
Dynamic
that
can
reversibly
break
reform
enable
network
rearrangement,
thereby
offering
unprecedented
properties
materials
such
adaptability,
self‐healing,
recycling
capabilities.
Hence,
introducing
dynamic
into
a
promising
strategy
further
expand
meet
diverse
application
scenarios
printed
multi‐functional
moreover
more
demanding
sustainable
nature‐inspired
considerations
(e.g.,
self‐healing).
Herein,
an
overview
recent
advances
in
printing,
aiming
bridge
these
two
research
fields
presented.
Importantly,
current
challenges
are
analyzed
perspectives
developing
their
potential
applications
provided.
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
35(52)
Published: April 23, 2023
Advances
in
bioprinting
have
enabled
the
fabrication
of
complex
tissue
constructs
with
high
speed
and
resolution.
However,
there
remains
significant
structural
biological
complexity
within
tissues
that
is
unable
to
recapitulate.
Bone,
for
example,
has
a
hierarchical
organization
ranging
from
molecular
whole
organ
level.
Current
techniques
materials
employed
imposed
limits
on
scale,
speed,
resolution
can
be
achieved,
rendering
technique
reproduce
hierarchies
cell-matrix
interactions
are
observed
bone.
The
shift
toward
biomimetic
approaches
bone
engineering,
where
hydrogels
provide
biophysical
biochemical
cues
encapsulated
cells,
promising
approach
enhancing
function
development
vitro
modeling.
A
major
focus
modeling
creating
dynamic
microenvironmental
niches
support,
stimulate,
direct
cellular
processes
formation
remodeling.
Hydrogels
ideal
imitating
extracellular
matrix
since
they
engineered
present
various
whilst
allowing
bioprinting.
Here,
recent
advances
3D
niche
conducive
engineering
models
reviewed.
Additive manufacturing,
Journal Year:
2024,
Volume and Issue:
84, P. 104094 - 104094
Published: March 1, 2024
Volumetric
Additive
Manufacturing
(VAM)
is
an
emerging
3D
printing
technology
that
operates
by
fabricating
objects
from
all
points
within
a
medium's
volume.
This
technique
capable
of
producing
parts
without
supporting
structures
and
overprinting
around
existing
structures.
Notably,
the
approach
VAM
utilises
to
print
time
efficient
compared
traditional
additive
manufacturing
methods
with
times
being
measured
in
seconds
minutes
instead
hours.
As
this
there
little
comparison
or
synthesis
reported
so
far
literature,
thus
primary
objective
review
address
issue
providing
comprehensive
analysis
VAM,
delving
into
its
applications,
challenges
it
faces,
research
advancements
made
area.
also
investigates
how
new
are
investigated
on,
literature.
In
order
achieve
goal
structured
literature
was
conducted
thoroughly
examine
current
state
VAM.
found
30
papers,
which
were
used
categorise
different
methods,
explore
potential
various
fields,
formulate
definition
for
differentiate
other
technologies.
A
key
finding
while
offers
rapid
fabrication
capabilities,
currently
faces
several
constraints.
These
include
limited
availability
commercial
printers,
complex
methodologies,
restricted
range
compatible
materials,
need
specialised
equipment.
Collectively,
these
factors
could
serve
as
barriers
broader
adoption
technology.
addition,
lack
homogeneity
parameters
investigate
report
makes
difficult
compare
contrast
works
against
published
field
progresses,
addressing
will
be
essential
unlock
applications
increase
one
first
explicitly
focus
on
entirety
offering
valuable
insights
present
directions
future
research.
MRS Communications,
Journal Year:
2023,
Volume and Issue:
13(5), P. 764 - 785
Published: Aug. 29, 2023
Volumetric
additive
manufacturing
is
a
novel
fabrication
method
allowing
rapid,
freeform,
layer-less
3D
printing.
Analogous
to
computer
tomography
(CT),
the
projects
dynamic
light
patterns
into
rotating
vat
of
photosensitive
resin.
These
build
up
three-dimensional
energy
dose
within
resin,
solidifying
volume
desired
object
seconds.
Departing
from
established
sequential
methods
like
stereolithography
or
digital
printing,
volumetric
offers
new
opportunities
for
materials
that
can
be
used
include
viscous
acrylates
and
elastomers,
epoxies
(and
orthogonal
epoxy-acrylate
formulations
with
spatially
controlled
stiffness)
formulations,
tunable
stiffness
thiol-enes
shape
memory
foams,
polymer
derived
ceramics,
silica-nanocomposite
based
glass,
gelatin-based
hydrogels
cell-laden
biofabrication.
Here
we
review
these
materials,
highlight
challenges
adapt
them
manufacturing,
discuss
perspectives
they
present.