Physics of Fluids,
Journal Year:
2025,
Volume and Issue:
37(3)
Published: March 1, 2025
A
theoretical
model
is
proposed
to
study
fluid
dynamics
in
microchannels
under
pulsatile
external
forcing.
This
incorporates
the
fluid/wall
interaction
considering
that
a
rough
interface
consists
of
an
array
parallel
nanometric
channels
coupled
with
bulk
flow
generated
main
microfluidic
channel.
Consequently,
technique
developed
compute
exact
analytical
solution.
solution
fundamental
for
multiscale
involved
between
adjacent
flows
confining
dimensions
and
properties
differ
by
orders
magnitude.
particularly
relevant
case
confined
water,
as
recent
evidence
suggests
confinement-dependent
viscoelastic
behavior.
Under
these
conditions,
considerable
slippage
predicted
at
nanoconfined
water
larger
confinements.
finding
understood
terms
propagation
elastic
waves
are
propagated
magnified
microchannel.
Finally,
stability
robustness
all
ranges
channel
relaxation
times
exploited
carry
out
comprehensive
exploration
key
physical
conditions
determine
arising
persistence
anomalous
due
size-dependent
viscoelasticity.
The
results
this
interest
better
understanding
impact
interactions
dynamic
situations,
reassessment
typical
assumptions
no-slippage
interface,
widely
employed
microfluidics
high-polarity
channels.
Chemical Society Reviews,
Journal Year:
2024,
Volume and Issue:
53(20), P. 10012 - 10043
Published: Jan. 1, 2024
Bioinspired
superwetting
oil–water
separation
strategy
is
summarized
from
confined-space
to
open-space,
static
dynamic
devices.
Strategies
are
evaluated
and
compared
current
challenges
feasible
solutions
emphasized.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(36), P. 24605 - 24616
Published: Aug. 26, 2024
Sweat
analysis
has
advanced
from
diagnosing
cystic
fibrosis
and
testing
for
illicit
drugs
to
noninvasive
monitoring
of
health
biomarkers.
This
article
introduces
the
rapid
development
wearable
flexible
sweat
sensors,
highlighting
key
milestones
various
sensing
strategies
real-time
analytes.
We
discuss
challenges
such
as
developing
high-performance
nanomaterial-based
biosensors,
ensuring
continuous
production
sampling,
achieving
high
sweat/blood
correlation,
biocompatibility.
The
potential
machine
learning
enhance
these
sensors
personalized
healthcare
is
presented,
enabling
tracking
prediction
physiological
changes
disease
onset.
Leveraging
advancements
in
electronics,
nanomaterials,
biosensing,
data
analytics,
biosensors
promise
revolutionize
management,
prevention,
prediction,
promoting
healthier
lifestyles
transforming
medical
practices
globally.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(32)
Published: May 30, 2024
Spontaneous
or
nonspontaneous
unidirectional
fluid
transport
across
multidimension
can
occur
under
specific
structural
designs
and
ambient
elements
for
porous
materials.
While
existing
reviews
have
extensively
summarized
on
surfaces,
there
is
an
absence
of
literature
summarizing
fluid's
This
review
introduces
wetting
phenomena
observed
natural
biological
surfaces
structures.
Subsequently,
it
offers
overview
diverse
principles
potential
applications
in
this
field,
emphasizing
various
physical
chemical
(surface
energy,
capillary
size,
topographic
curvature)
(underwater,
oil,
pressure,
solar
energy).
Applications
encompass
moisture-wicking
fabric,
sensors,
skincare,
fog
collection,
oil-water
separation,
electrochemistry,
liquid-based
gating,
evaporators.
Additionally,
significant
formulas
from
studies
are
compelled
to
offer
readers
valuable
references.
Simultaneously,
advantages
challenges
critically
assessed
these
the
perspectives
presented.
Applied Physics Reviews,
Journal Year:
2024,
Volume and Issue:
11(2)
Published: May 7, 2024
Directional
liquid
dynamics
show
significant
interest
across
various
fields,
including
energy,
environmental
remediation,
water
harvesting,
microfluidics,
and
heat
transfer.
Nature
creatures
have
developed
remarkable
abilities
to
manipulate
through
their
distinct
surface
structures
chemical
compositions,
offering
valuable
insights
for
human
endeavors.
Understanding
the
fundamental
principles
governing
at
interfaces
of
liquids,
air,
solids
is
crucial
developing
novel
technologies
solutions
in
diverse
domains.
By
elucidating
underlying
mechanisms
directional
natural
organisms,
we
can
inspire
innovative
approaches
practical
applications.
This
review
aims
provide
a
comprehensive
understanding
by
(1)
exploring
interfaces,
(2)
introducing
representative
(3)
presenting
range
innovations
applications
inspired
phenomena,
(4)
our
into
current
unresolved
questions
persistent
challenges
within
realm
on
superwetting
interfaces.
delineating
these
objectives,
aim
contribute
advancement
knowledge
this
critical
area
pave
way
future
research
technological
developments.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 9, 2025
Abstract
Utilizing
ubiquitous
fog
to
engineer
a
dual‐function
device
that
integrates
harvesting
and
hydro‐to‐electricity
conversion,
thereby
overcoming
geographical
hydrological
constraints,
provides
an
opportunity
promote
sustainable
freshwater
electricity
supply.
However,
inefficiency
remains
the
key
challenge
advancement
of
energy
development
practical
applications.
Herein,
bio‐inspired
(BDFD)
integrating
efficient
solid‐liquid
triboelectricity
nanogenerator
is
developed.
Specifically,
biomimetic
fog‐water
collector
(BFWC)
designed
inspired
by
excellent
fog‐catching
capability
Cactus
ultra‐fast
water
transport
Sarracenia.
BFWC
then
combined
with
triboelectric
develop
BDFD.
Additionally,
mechanism
which
structural
parameters
influence
mist
condensation
revealed.
The
effects
height,
angle,
frequency
condensate
droplets
on
power
generation
performance
are
also
systematically
investigated.
Remarkably,
achieved
collection
efficiency
48940
mg
cm
−2
h
−1
,
305%
improvement
over
non‐bionic
samples.
Meanwhile,
transfer
charge
quantified
at
28.9
nC,
demonstrating
BDFD
can
efficiently
convert
mechanical
condensed
droplet
into
electrical
energy.
Therefore,
this
bionic
strategy
enhances
atmospheric
utilization
apparatus
offers
prospects
for
mitigating
deficiencies
in
resources.