Dynamic Properties and Vibration Response of Polymer Matrix Composites: Mechanisms, Influences, and Applications in Engineering
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(1)
Published: Jan. 1, 2025
ABSTRACT
Polymer
matrix
composites
(PMCs)
are
critical
materials
in
vibration‐intensive
applications,
including
aerospace,
automotive,
naval,
and
sports
sectors,
where
understanding
their
dynamic
behavior
is
essential
for
reliable
performance.
This
study
comprehensively
reviews
PMCs'
properties,
focusing
on
vibration
response
damping
characteristics.
It
explores
the
influence
of
material
parameters,
such
as
composition,
fiber
orientation,
stacking
sequence,
nanoparticle
incorporation,
natural
frequencies
ratios.
Experimental
techniques
like
mechanical
analysis
fast
Fourier
transform,
alongside
computational
analytical
methods,
finite
element
classical
theory,
utilized
to
evaluate
these
properties.
Key
findings
reveal
that
fibers
kenaf
hamp
enhance
eco‐friendly
while
synthetic
nanoparticles,
multi‐walled
carbon
nanotubes,
improve
frequency
but
may
reduce
damping.
The
effects
temperature
sensitivity
chemical
treatments
also
discussed,
emphasizing
role
optimizing
vibrational
Analytical
models
numerical
simulations
validate
findings,
providing
insights
into
structural
design.
work
bridges
knowledge
gaps
by
integrating
experimental
theoretical
approaches
offers
practical
strategies
developing
lightweight,
vibration‐resistant
PMCs
tailored
engineering
applications.
Future
research
should
focus
material–environment
interactions
advanced
Language: Английский
Analysis of mechanical and vibration properties of carbon fiber reinforced polymer matrix composites with SiO2/Al2O3 micron particles
Yu Han,
No information about this author
Zelin Shi,
No information about this author
Hua Cheng
No information about this author
et al.
Polymer Composites,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 21, 2024
Abstract
SiO
2
and
Al
O
3
micron
particle
effects
on
the
mechanical
vibration
properties
of
carbon
fiber‐reinforced
polymer
(CFRP)
composites
were
systematically
investigated
by
incorporating
these
particles
into
epoxy
resin.
CFRP
laminates
prepared
adding
various
weight
fractions
(0–10
wt.
%)
to
The
influence
cutout
shape
angle
(
θ
cf
)
between
square
fiber
orientation
vibrational
performance
investigated.
As
fraction
(PWF)
increased,
tensile,
bending,
interlaminar
shear,
initially
improved
then
declined.
flexure
strength
samples
with
4
%
increased
11.70%.
8
exhibited
highest
damping
ratio,
which
was
4.59
times
greater
than
that
without
particles.
laminates.
For
rectangular
cutout,
sample
=
22.5°
exhibits
exceeding
those
at
0°
45°
2.28%
7.10%,
respectively.
Highlights
Three‐roll
milling
can
disperse
wt.%
in
SiO₂
Al₂O₃
improve
CFRP.
ratio
359.22%.
Circular
minimally
reduces
first‐order
natural
frequency
Angle
affects
properties.
Language: Английский
Enhanced performance through hybridization: mechanical, dynamic mechanical, flammability, and vibration analysis of natural fibres/basalt/SiO2 composites
Polymer Bulletin,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 24, 2024
Language: Английский
Exploring the dynamic and thermo-mechanical behavior of Banana/Kenaf/Jute epoxy hybrid biocomposites: Impact of stacking sequences
Materials Research Express,
Journal Year:
2024,
Volume and Issue:
11(12), P. 125509 - 125509
Published: Dec. 1, 2024
Abstract
This
study
investigates
the
thermal
behavior
and
thermo-mechanical
properties
of
banana,
jute,
kenaf
fiber-reinforced
epoxy
composites,
focusing
on
impact
different
layering
sequences
hybrid
configurations.
The
novelty
work
lies
in
tailored
stacking
natural
fibers
to
optimize
composite
performance,
a
topic
growing
significance
sustainable
engineering.
Thermal
analysis
revealed
highest
endothermic
peak
at
72
°C
BJKKJBE
while
jute
composites
exhibited
marginally
higher
73
°C.
Dynamic
mechanical
highlighted
as
having
superior
storage
modulus
values,
reaching
152
MPa
10
Hz,
followed
by
hybrid,
which
achieved
137
MPa.
Additionally,
banana
neat
recorded
loss
values
(52
51
MPa),
indicating
excellent
energy
dissipation.
Neat
fiber
reinforced
displayed
tan
delta
with
hybrids
also
showing
notable
damping
behavior,
suggesting
effective
vibration
attenuation.
On
other
hand,
jute-based
demonstrated
lowest
delta,
reflecting
increased
stiffness.
A
significant
outcome
is
expansion
where
shrinkage
(0.3%),
KBJJBKE
reinforcement,
skin
layer,
coefficient
(257
ppm
−1
).
These
findings
present
new
opportunities
for
optimizing
applications
requiring
contributing
advancements
materials
design
engineering
applications.
Language: Английский