Applied Sciences,
Год журнала:
2025,
Номер
15(6), С. 2962 - 2962
Опубликована: Март 10, 2025
Additive
manufacturing
must
be
highlighted
as
an
innovative
technology
with
the
capacity
to
produce
objects
complex
and
customized
geometries
using
a
diverse
range
of
raw
materials.
Despite
its
significant
potential,
research
compiling
evaluating
specific
contributions
additive
in
field
chemical
engineering
was
scarce
both
quantitative
qualitative
terms.
Similarly,
application
tools
has
not
been
specifically
reviewed.
Therefore,
this
work
conducted
comprehensive
review
scientific
literature
covering
these
issues
bibliometric
analysis.
The
search
encompassed
entirety
up
year
2023,
yielding
3761
documents
Scopus
database.
principal
findings
analysis
indicated
exponential
growth
number
publications,
which
suggests
rising
interest
field.
revealed
that
English
dominant
language
documents,
articles
constituted
most
common
document
type,
indicating
quality
maturity
research.
thematic
distribution
proved
multidisciplinary,
primary
focus
on
materials
science,
well
basic
sciences.
United
States
foremost
contributor
production,
followed
by
China
Germany.
Keyword
scrutiny
cited
enabled
identification
main
topics,
were
found
include
biofabrication
biomedical
applications.
Moreover,
network
software
SciMAT
(v
1.1.06)
yielded
corresponding
strategic
diagrams,
evolution
maps,
networks,
provided
overview
trends
gaps.
considerable
other
purposes
overshadowed
applications
within
field,
while
potential
could
make
have
eclipsed
too.
On
one
hand,
focused
process
intensification
benefit
from
design
advanced
microreactors
miniaturized
devices
or
more
efficient
heat
exchangers,
catalysts,
adsorbents
separation
membranes
structures.
life
cycle
assessment
optimization
are
established
should
extensively
employed
context
ensure
sustainable
outcome.
Three-dimensional
(3D)
printing,
a
subset
of
additive
manufacturing
technologies,
has
attracted
significant
attention
from
researchers
for
both
laboratory-based
and
on-site
prototyping
since
its
widespread
adoption.
Its
adaptability
versatility
have
made
it
an
essential
tool
across
various
disciplines,
particularly
in
biotechnology
bioengineering.
While
conventional
methods
can
offer
precise
material
control
compatibility
with
biological
fluids,
they
often
pose
challenges,
such
as
high
costs
the
requirement
large,
complex
setups.
These
constraints
limit
their
accessibility
experimental
needs
However,
3D
printers,
ability
to
process
wide
range
materials,
proven
be
remarkably
effective
resolving
these
challenges.
Their
capability
create
custom
parts
structures
while
maintaining
biomaterials
fluids
opened
new
possibilities
not
only
tissue
engineering,
drug
development,
biomedical
device
fabrication
but
also
broader
fields
biotechnology,
biochemistry,
related
sciences.
When
examining
basic
concept
development
timeline
becomes
clear
that
emerging
trends
artificial
intelligence,
robotics,
digitalization
are
expected
further
accelerate
integration
into
real-world
applications.
ongoing
advancements
likely
benefit
laboratories
production
centers
involved
by
speeding
up
experiments,
paving
way
rapid
testing,
making
biofabrication
processes
more
accessible
automated,
including
areas
like
engineering
personalized
medicine.
International Journal of Applied Sciences & Development,
Год журнала:
2024,
Номер
3, С. 57 - 73
Опубликована: Май 16, 2024
It
is
currently
recognized
that
electric
vehicles
are
the
optimal
type
of
passenger
transport
for
urban
usage.
However,
there
very
few
people
willing
to
buy
them,
since
today
cars
expensive.
So
development
personal
light
segment
(electric
bicycles,
scooters,
motorcycles,
etc.)
becomes
relevant.
At
same
time,
introduction
new
technologies
(in
particular,
3D
printing)
and
constructions
(airless
wheels)
their
mass
production
particular
importance.
The
range
problems
can
be
solved
by
modern
additive
expanding
every
day.
FDM
technology
one
most
commonly
used
methods.
not
only
widely
available,
but
it
also
provides
significant
possibilities
decision-making.
developments
in
this
area
focused
on
obtaining
geometric
accuracy
shapes
without
taking
into
account
mechanical
properties
materials
used.
Therefore,
purpose
study
investigate
experimentally
influence
filling
density
parts
manufactured
printing
application
obtained
results
airless
tires
using
technology.
Revista de Gestão Social e Ambiental,
Год журнала:
2024,
Номер
18(5), С. e05255 - e05255
Опубликована: Март 18, 2024
Objective:
The
aim
of
this
study
is
to
investigate
advancements
in
metallic
biomaterials
for
biomedical
implants,
with
the
goal
enhancing
patient
safety
and
reducing
mortality
risks
associated
medical
procedures.
Theoretical
Framework:
In
study,
theoretical
framework
draws
upon
concepts
such
as
biocompatibility,
advanced
manufacturing
techniques,
role
artificial
intelligence
improving
implant
performance
outcomes.
These
theories
provide
a
solid
foundation
understanding
context
significance
research.
Method:
methodology
adopted
research
comprises
an
integrative
literature
review
model.
Specific
steps
included
formulating
guiding
question
using
PICO/PIO/PEO
strategy,
establishing
inclusion
exclusion
criteria
studies,
categorizing
selected
research,
analyzing
interpreting
results.
Data
collection
involved
selecting
articles
from
reputable
databases
Web
Science,
Springer
Nature
Librarian,
Wiley
Online
Library,
relevant
keywords
related
materials
human
health.
Results
Discussion:
results
systematic
synthesis
findings
on
materials.
are
contextualized
within
framework,
emphasizing
importance
continuous
efforts
developing
safer
more
effective
implants.
discussion
highlights
implications
these
healthcare
technologies
Research
Implications:
practical
include
informing
development
thereby
quality
life.
extend
various
sectors
technology
engineering.
Originality/Value:
This
contributes
by
synthesizing
existing
knowledge
providing
valuable
insights
into
field
applications.
Engineering Reports,
Год журнала:
2024,
Номер
6(11)
Опубликована: Окт. 17, 2024
ABSTRACT
Additive
Manufacturing
(AM)
has
revolutionized
the
production
industry
by
offering
design
freedom
with
shorter
lead
times
and
reduced
material
wastage.
However,
damage
tolerance
(DT)
of
AM
parts
is
a
significant
concern
due
to
their
microstructural
geometric
complexities,
which
affect
mechanical
performance.
This
article
aims
provide
comprehensive
overview
manufacturing
parameters
affecting
components
produced
specifically
selective
laser
melting
(SLM).
Detailed
discussions
are
presented
on
effects
attributes
microstructure,
defects,
characteristics
parts.
Depending
these
aspects,
basic
concepts
studied
critically
explained
for
materials.
The
criterion
damage‐tolerant
component
design,
fatigue
fracture
properties,
effect
defects
life
presented.
In
addition,
different
types
gradation
crack
growth
behavior
samples
processed
SLM
also
investigated
in
depth.
There
currently
lack
specific
review
study
literature
that
establishes
connection
between
process
metallographic
impact
additively
manufactured
gap
research
highlights
need
bridge
this
knowledge
deficit
valuable
insights
understanding
relationships
processes,
characteristics,
structural
integrity
components.
concludes
addressing
challenges
opportunities
designing
qualifying
tolerance.