Frontiers in Physics,
Journal Year:
2024,
Volume and Issue:
12
Published: Dec. 24, 2024
This
paper
offers
a
concise
overview
regarding
ancient
Chinese
mathematics,
centering
on
the
Ying
Buzu
Shu,
He
Chengtian
inequality,
and
frequency
formulation
stemming
from
them.
Moreover,
it
delves
into
Max-min
approach
Chunhui
He’s
iterative
algorithm.
What’s
more,
spotlight
is
cast
which
bears
certain
similarities
to
Babylonian
mathematical
tradition.
Subsequently,
old
algorithm
for
computing
square
roots
adapted
tackle
hurdle
of
nonlinear
differential
equations.
To
showcase
potential
this
approach,
set
Micro-Electro-Mechanical
systems
(MEMS)
problems
are
utilized
exemplify
effectiveness
modified
in
attaining
high-precision
analytical
solutions,
accompanied
by
an
exploration
its
prospective
applications.
Advances in Differential Equations and Control Processes,
Journal Year:
2025,
Volume and Issue:
32(1), P. 2589 - 2589
Published: Jan. 22, 2025
Mathematics
serves
as
the
fundamental
basis
for
innovation,
propelling
technological
advancement.
In
forthcoming
decade,
convergence
of
differential
equations
and
control
processes
is
poised
to
redefine
frontiers
scientific
exploration.
The
integration
artificial
intelligence
machine
learning
with
set
inaugurate
a
new
era
problem-solving,
enabling
extraction
latent
physical
insights
accelerating
solution
discovery.
Multi-scale
modeling,
its
capacity
span
disparate
domains,
has
potential
resolve
long-standing
puzzles
in
fields
such
fluid
mechanics
nanoscience.
Furthermore,
fractal
geometry
holds
promise
novel
perspectives
understanding
optimizing
complex
systems,
ranging
from
urban
landscapes
turbulent
flows.
(AI)
innovations
play
pivotal
role
development
next-generation
technologies,
transform
diverse
sectors
medicine,
communication,
autonomous
systems.
This
paper
explores
these
developments,
highlighting
their
impacts
emphasizing
necessity
interdisciplinary
collaboration
leverage
full
potential.
Frontiers in Applied Mathematics and Statistics,
Journal Year:
2025,
Volume and Issue:
10
Published: Jan. 15, 2025
The
Old
Babylonian
Algorithm,
a
remarkable
mathematical
gem
from
ancient
Mesopotamia
(around
1800-1600
BC),
has
long
been
subject
of
fascination
for
scholars.
This
algorithm
not
only
represents
the
advanced
intellectual
capabilities
Babylonians
but
also
holds
great
relevance
in
modern
times.
It
is
particularly
renowned
its
ingenious
method
approximating
square
roots
[1].In
recent
research,
an
exciting
transformation
occurred.
traditional
Algorithm
ingeniously
modified
to
solve
differential
equations,
breathing
new
life
into
this
technique
[1].
In
paper,
we
aim
reveal
how
revival
led
significant
role
within
complex
and
captivating
realm
Non-linear
Vibration
theory,
thereby
bridging
demonstrating
timelessness
concepts.Nonlinear
vibration
analysis
presents
several
specific
challenges.
Strongly
nonlinear
oscillators,
such
as
one
considered
study
(in
form
shown
equation
(
1)),
are
characterized
by
presence
higher-order
terms.
These
nonlinearities
can
lead
dynamic
behaviors
that
difficult
analyze
using
methods
[3][4][5].
For
instance,
homotopy
perturbation
method,
while
widely
used,
attempts
convert
original
problem
sequence
linear
subproblems
through
introduction
parameter,
yet
it
may
still
face
difficulties
accurately
handling
highly
systems
[2][3][4].
variational
iteration
another
commonly
employed
approach,
limitations
dealing
with
intricacies
vibrations
[5].
He's
frequency
formulation,
originating
Chinese
algorithm,
offers
relatively
simple
effective
means
treating
demonstrated
unique
value
field
dynamics
straightforward
efficient
nature
[6,7,8].
However,
proposed
Ref.
[1]
provides
novel
perspective
potentially
more
solution
strongly
oscillator
comparison
these
methods.
combines
wisdom
adaptations
better
suit
context
analysis.By
exploring
application
vibration,
hope
contribute
deeper
understanding
both
heritage
practical
implications
contemporary
scientific
research.
research
sheds
light
on
historical
significance
paves
way
further
advancements
dynamics.We
consider
35
0
u
au
bu
+
=(1)This
distinguished
existence
high-order
terms,
where
b
constants.
initial
conditions
set
)0
uA
=
)
00
u=
,
A
amplitude.Traditionally,
numerous
have
adopted
address
problems.The
gained
extensive
application.
endeavors
sub-problems
introducing
parameter
-used
approach
Moreover,
formulation
[6,7,8],
which
stems
systems.
characteristics
[9][10][11][12][13].However,
apply
old
suggested
[1]:(
2
1
n
nn
bu
uu
-(2)Where
weighting
factor.
viewpoint
contrast
methods.To
understand
derivation
let's
following
step
-bystep
explanation.Suppose
cos
t
(3)where
frequency.
Utilizing
obtain
)u
aA
bA
At
-
-(4)By
setting
31
=
Figure
elaborate
-depth
between
approximate
exact
diverse
range
values
parameters
b.
vividly
showcases
performance
scope
domain.
excellent
agreement
solutions
effectively
validates
effectiveness
algorithm.
solid
evidence
theoretically
sound
practically
applicable.(
conclusion,
emerged
promising
oscillators.
Through
combination
adaptations,
alternative
compared
techniques.The
successful
theoretical
soundness
applicability.
solutions,
presented
study,
compelling
effectiveness.Looking
ahead,
findings
future
studies
applications.
MEMS
(Micro-Electro-Mechanical
Systems),
could
be
enhance
optimization
behavior
devices.
By
modeling
analyzing
miniature
systems,
possible
improve
their
performance,
reliability,
lifespan.Furthermore,
exploration
algorithm's
capabilities.
Future
investigations
focus
extending
those
time
-varying
or
multiple
degrees
freedom.
Additionally,
there
potential
integrating
other
computational
analytical
tools,
machine
learning
algorithms
identification
system
optimization.Overall,
resurgence
promise
advancing
our
ability
handle
opening
up
avenues
innovation
various
engineering
disciplines.13.
Modern Physics Letters A,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 24, 2025
Electrohydrodynamic
fluids
possess
extensive
applications,
spanning
from
the
formation
of
magnetic
fields
in
planets
and
stars
to
oil
recovery.
In
this
paper,
a
variational
principle
for
an
electrohydrodynamic
fluid
is
presented,
formulated
through
semi-inverse
method.
The
Ritz
method
utilized
derive
approximate
solution.
Furthermore,
potential
application
optimal
control
problems
constrained
by
explored.
Sound&Vibration,
Journal Year:
2025,
Volume and Issue:
59(2), P. 2358 - 2358
Published: March 5, 2025
Highly
nonlinear
oscillators
are
examined
in
their
capacity
to
simulate
intricate
systems
engineering,
physics,
biology,
and
finance,
as
well
diverse
behavior,
rendering
them
essential
the
development
of
resilient
technological
advancement.
Therefore,
fundamental
purpose
current
work
is
analyze
He’s
frequency
formula
(HFF)
get
theoretical
explanations
many
types
very
oscillators.
We
investigate,
both
analytical
computational,
relationship
between
elastic
forces
solution
a
specific
oscillator.
This
oscillator
exhibits
significant
damping.
It
assumed
that
required
quantity
trigonometric
functions
matches
strong
ordinary
differential
equation
(ODE)
explains
motion.
The
novel
approach
definitely
takes
less
processing
time
complex
than
traditional
perturbation
methods
were
widely
used
this
field.
method,
which
essentially
giving
linearization
ODE,
known
non-perturbative
(NPA).
procedure
produces
new
similar
linear
much
harmonic
scenario.
Readers
will
benefit
from
an
in-depth
account
NPA.
findings
validated
by
numerical
examination
using
Mathematical
Software
(MS).
(NS)
tests
yielded
fairly
findings.
well-established
principle
classical
trust
on
Taylor
expansions
approximate
restoring
forces,
therefore
simplifying
situation.
When
NPA
used,
vulnerability
does
not
present.
Furthermore,
enables
thorough
assessment
problems’
stability
analysis,
was
possible
prior
conventional
methodology.
Consequently,
more
appropriate
responsibility
tool
for
examining
approximations
extremely
MS.
Frontiers in Physics,
Journal Year:
2025,
Volume and Issue:
12
Published: Jan. 14, 2025
This
review
provides
a
comprehensive
analysis
of
the
application
Micro-Electro-Mechanical
Systems
(MEMS)
technology
in
anti-electromagnetic
radiation
maternity
wear.
The
commences
with
an
elaboration
electromagnetic
shielding
principles
traditional
materials
and
principle
radiation.
Subsequently,
role
MEMS
clothing
is
detailed,
including
real-time
monitoring
via
sensors,
enhancement
fabric
through
electrospinning
material
deposition,
realization
intelligent
functions
such
as
micro-actuators
communication
modules.
Furthermore,
considers
optimization
performance,
taking
into
account
factors
shielding,
air
permeability
comfort.
article
addresses
challenges
ensuring
comfort
power
supply.
concludes
by
emphasizing
potential
protecting
pregnant
women
fetuses
proposes
future
research
directions,
in-depth
exploration
working
principles,
technical
specifications,
performance
characteristics
key
components
(sensors
micro-actuators),
well
on
combination
existing
anti-radiation
technologies,
metal
fiber
fabrics
nanomaterials,
has
to
yield
significant
synergistic
effects.
optimization,
durability
washing
stability
clothes,
essential.
Additionally,
emerging
bubble
could
lead
innovative
applications
this
field.
Computation,
Journal Year:
2025,
Volume and Issue:
13(4), P. 81 - 81
Published: March 21, 2025
The
aim
of
this
paper
is
twofold:
introducing
the
concept
monotone
enriched
nonexpansive
mappings
and
a
faster
iterative
process.
Our
examples
illustrate
novelty
our
newly
introduced
concepts.
We
investigate
estimation
fixed
points
for
such
first
time
within
an
ordered
CAT(0)
space.
It
done
by
proving
some
strong
Δ-convergence
theorems.
Additionally,
numerical
experiments
are
included
to
demonstrate
validity
theoretical
results
establish
superiority
convergence
behavior
As
application,
we
use
concepts
find
solution
integral
equation.
outcomes
study
expand
upon
enhance
certain
established
findings
in
current
body
literature.
AppliedMath,
Journal Year:
2025,
Volume and Issue:
5(2), P. 34 - 34
Published: March 27, 2025
This
work
presents
the
modified
Lagrange
interpolating
polynomial
(MLIP)
method,
which
aims
to
provide
a
straightforward
procedure
for
deriving
accurate
analytical
approximations
of
given
function.
The
method
introduces
an
exponential
function
with
several
parameters
multiplies
one
terms
polynomial.
These
will
adjust
their
values
ensure
that
proposed
approximation
passes
through
points
target
function,
while
also
adopting
correct
its
derivative
at
points,
showing
versatility.
polynomials
(LIPs)
present
problem
introducing
oscillatory
and
are,
therefore,
expected
poor
We
see
relevant
contributions
MLIPs
is
contain
fewer
compared
those
obtained
by
LIPs
when
both
pass
same
be
represented;
consequently,
better
MLIP
are
expected.
A
comparison
results
from
other
methods
reported
in
literature
highlights
method’s
potential
as
useful
tool
obtaining
set
points.
It
this
contributes
break
paradigm
effective
modification
known
has
lengthy
complex.