Recent Innovations in Interfacial Strategies for DLP 3D Printing Process Optimization
Materials Horizons,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Three-dimensional
(3D)
printing,
also
known
as
additive
manufacturing,
is
capable
of
transforming
computer-aided
designs
into
intricate
structures
directly
and
on
demand.
This
technology
has
garnered
significant
attention
in
recent
years.
Among
the
various
approaches,
digital
light
processing
(DLP)
3D
which
utilizes
polymers
or
prepolymers
ink,
emerged
leading
new
technology,
driven
by
high
demand
across
diverse
fields
such
customized
production,
healthcare,
education,
art
design.
DLP
printing
employs
cured
slices
molding
units
recognized
for
its
potential
to
achieve
both
speed
resolution.
Recent
insights
process
highlight
inherent
interface
transformations
between
liquid
solid
states.
review
summarizes
key
aspects
process,
speed,
precision,
material
diversity
optimization,
from
view
interfacial
interactions
phases
are
influenced
resin
formation,
curing
surfaces
source
properties.
These
include
those
at
resin-UV
pattern
interface,
structure-curing
surface
resin-curing
resin-cured
structure
each
contributing
unique
characteristics
printed
results.
Finally,
this
addresses
current
challenges
limitations
providing
valuable
future
improvements
guiding
innovations
field.
Language: Английский
Achieving sustainability by additive manufacturing: a state-of-the-art review and perspectives
Virtual and Physical Prototyping,
Journal Year:
2024,
Volume and Issue:
19(1)
Published: Dec. 9, 2024
As
global
awareness
of
resource
scarcity
and
environmental
concerns
grows,
sustainable
manufacturing
practices
have
become
imperative.
Additive
(AM),
with
its
high
material
efficiency
design
flexibility,
presents
a
promising
pathway
toward
industrial
transformation.
This
review
explores
AM's
role
in
sustainability
across
lifecycle:
for
AM,
after
AM.
In
the
AM
phase,
strategies
such
as
topology
optimisation,
part
consolidation,
cellular
structures
reduce
usage
enhance
durability.
During
in-situ
process
monitoring
closed-loop
control
improve
reliability,
reducing
energy
consumption
failure
rates.
Meanwhile,
adoption
materials—metals,
polymers,
concretes,
biomaterials—further
strengthens
potential
to
advance
sustainability.
After
applications
repair,
remanufacturing,
recycling
extend
product
lifecycles
impact,
aligning
circular
economy
principles.
Future
perspectives
include
integration
artificial
intelligence
in-process
development,
along
regulatory
frameworks
critical
deployment.
Lastly,
emerging
research
trends
advancing
through
are
reviewed.
Overall,
this
provides
roadmap
academia
industry,
offering
insights
maximise
contribution
more
responsible
future.
Language: Английский