Nano Letters,
Journal Year:
2023,
Volume and Issue:
23(4), P. 1591 - 1599
Published: Feb. 1, 2023
Cells
release
extracellular
vesicles
(EVs)
as
the
carriers
for
intercellular
communications
to
regulate
life
activities.
Particularly,
it
is
increasingly
apparent
that
mechanical
forces
play
an
essential
role
in
biological
systems.
The
nanomechanical
properties
of
EVs
and
their
dynamics
cancer
development
are
still
not
fully
understood.
Herein,
with
use
atomic
force
microscopy
(AFM),
signatures
from
liquid
biopsies
hematologic
patients
were
unraveled.
Single
native
probed
by
AFM
under
aqueous
conditions.
elastic
viscous
measured
visualized
correlate
EV
mechanics
geometry.
Experimental
results
remarkably
reveal
significant
differences
among
multiple
myeloma
patients,
lymphoma
healthy
volunteers.
study
unveils
unique
cancers,
which
will
benefit
studies
diagnosis
prognosis
translational
significance.
Advanced Science,
Journal Year:
2023,
Volume and Issue:
10(17)
Published: April 20, 2023
Extracellular
vesicles
(EVs)
are
transport
secreted
by
living
cells
and
released
into
the
extracellular
environment.
Recent
studies
have
shown
that
EVs
serve
as
"messengers"
in
intercellular
inter-organismal
communication,
both
normal
pathological
processes.
EVs,
natural
nanocarriers,
can
deliver
bioactivators
therapy
with
their
endogenous
properties.
This
review
article
describes
engineering
of
sources,
isolation
method,
cargo
loading,
boosting
approach,
adjustable
targeting
EVs.
Furthermore,
summarizes
recent
progress
made
EV-based
delivery
systems
applications,
including
cancer,
cardiovascular
diseases,
liver,
kidney,
nervous
system
COVID-19
emphasizes
obstacles
challenges
therapies
possible
strategies.
Bioactive Materials,
Journal Year:
2024,
Volume and Issue:
36, P. 126 - 156
Published: March 2, 2024
Small
extracellular
vesicles
(sEVs)
are
known
to
be
secreted
by
a
vast
majority
of
cells.
These
sEVs,
specifically
exosomes,
induce
specific
cell-to-cell
interactions
and
can
activate
signaling
pathways
in
recipient
cells
through
fusion
or
interaction.
nanovesicles
possess
several
desirable
properties,
making
them
ideal
for
regenerative
medicine
nanomedicine
applications.
properties
include
exceptional
stability,
biocompatibility,
wide
biodistribution,
minimal
immunogenicity.
However,
the
practical
utilization
particularly
clinical
settings
at
large
scale,
is
hindered
expensive
procedures
required
their
isolation,
limited
circulation
lifetime,
suboptimal
targeting
capacity.
Despite
these
challenges,
sEVs
have
demonstrated
remarkable
ability
accommodate
various
cargoes
found
extensive
applications
biomedical
sciences.
To
overcome
limitations
broaden
potential
applications,
researchers
should
strive
deepen
understanding
current
loading,
characterization
techniques.
Additionally,
acquiring
fundamental
knowledge
about
origins
employing
state-of-the-art
methodologies
expand
research
scope.
This
review
provides
comprehensive
overview
exosome-based
strategies
diverse
domains,
encompassing
cancer
therapy,
immunotherapy,
biomarker
Furthermore,
we
emphasize
immense
exosomes
medicine.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(14), P. 9784 - 9797
Published: March 12, 2024
Extracellular
vesicles
(EVs)
secreted
by
all
cell
types
are
involved
in
the
cell-to-cell
transfer
of
regulatory
factors
that
influence
and
tissue
phenotypes
normal
diseased
tissues.
EVs
thus
a
rich
source
biomarker
targets
for
assays
analyze
blood
urinary
disease
diagnosis.
Sensitive
detection
derived
from
specific
populations
is
key
major
hurdle
when
analyzing
complex
biological
samples,
but
innovative
approaches
surveyed
this
Perspective
can
streamline
EV
isolation
enhance
sensitivity
procedures
required
clinical
application
EV-based
diagnostics
therapeutics,
including
nanotechnology
microfluidics,
to
achieve
characterizations.
Finally,
also
outlines
opportunities
challenges
remaining
translation
assays.
International Journal of Molecular Sciences,
Journal Year:
2024,
Volume and Issue:
25(2), P. 1205 - 1205
Published: Jan. 18, 2024
Extracellular
vesicles
(EVs),
comprising
exosomes
and
microvesicles,
are
small
membranous
structures
secreted
by
nearly
all
cell
types.
They
have
emerged
as
crucial
mediators
in
intercellular
communication,
playing
pivotal
roles
diverse
physiological
pathological
processes,
notably
within
the
realm
of
immunity.
These
go
beyond
mere
cellular
interactions,
extracellular
stand
versatile
dynamic
components
immune
regulation,
impacting
both
innate
adaptive
Their
multifaceted
involvement
includes
activation,
antigen
presentation,
immunomodulation,
emphasising
their
significance
maintaining
homeostasis
contributing
to
pathogenesis
immune-related
disorders.
participate
immunomodulation
delivering
a
wide
array
bioactive
molecules,
including
proteins,
lipids,
nucleic
acids,
thereby
influencing
gene
expression
target
cells.
This
manuscript
presents
comprehensive
review
that
encompasses
vitro
vivo
studies
aimed
at
elucidating
mechanisms
through
which
EVs
modulate
human
Understanding
intricate
interplay
between
immunity
is
imperative
for
unveiling
novel
therapeutic
targets
diagnostic
tools
applicable
various
immunological
disorders,
autoimmune
diseases,
infectious
cancer.
Furthermore,
recognising
potential
drug
delivery
vehicles
holds
significant
promise
future
immunotherapies.
International Journal of Molecular Sciences,
Journal Year:
2024,
Volume and Issue:
25(5), P. 2730 - 2730
Published: Feb. 27, 2024
Extracellular
vesicles
(EVs),
a
diverse
group
of
cell-derived
exocytosed
particles,
are
pivotal
in
mediating
intercellular
communication
due
to
their
ability
selectively
transfer
biomolecules
specific
cell
types.
EVs,
composed
proteins,
nucleic
acids,
and
lipids,
taken
up
by
cells
affect
variety
signaling
cascades.
Research
the
field
has
primarily
focused
on
stem
with
particular
focus
mesenchymal
cells,
for
potential
therapeutic
benefits.
Recently,
tissue-specific
EVs
or
type-specific
extracellular
(CTS-EVs),
have
garnered
attention
unique
biogenesis
molecular
composition
because
they
enable
highly
targeted
cell-specific
communication.
Various
studies
outlined
roles
that
CTS-EVs
play
physiological
function
maintenance
homeostasis,
including
immune
modulation,
tissue
regeneration,
organ
development.
These
properties
also
exploited
disease
propagation,
such
as
cancer,
neurological
disorders,
infectious
diseases,
autoimmune
conditions,
more.
The
insights
gained
from
analyzing
different
biological
not
only
enhance
our
understanding
pathogenesis
but
open
new
avenues
innovative
diagnostic
biomarkers
targets
wide
spectrum
medical
conditions.
This
review
comprehensively
outlines
current
CTS-EV
origins,
within
normal
physiology,
implications
diseased
states.
Journal of the American Chemical Society,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 3, 2025
Real-time
monitoring
of
dynamic
microvesicles
(MVs),
vesicles
associated
with
living
cells,
is
great
significance
in
deeply
understanding
their
origin,
transport,
and
function.
However,
specific
labeling
MVs
poses
a
challenge
due
to
the
lack
unique
biomarkers
that
differentiate
them
from
other
cellular
compartments.
Here,
we
present
strategy
selectively
label
by
evaluating
series
lipid
layer-sensitive
cationic
indolium-coumarin
fluorescent
probes
(designated
as
IC-Cn,
n
ranging
1
18)
feature
varying
aliphatic
side
chains
(CnH2n+1).
Through
situ
cell
imaging
analysis,
found
IC-Cn
location
highly
related
lipophilicities
phospholipid
layer
hydrophobic
microenvironments
In
detail,
IC-C1
IC-C2
specifically
localize
both
inside
outside
cells.
contrast,
IC-C3,
IC-C4,
IC-C5
mitochondria
but
distinct
fluorescence
lifetimes.
Using
these
strategically,
have
discovered
that,
addition
biogenesis
plasma
membranes
damaged
mitochondria,
newly
formed
can
undergo
fusion
fission
processes.
Moreover,
mitochondria-derived
MVs,
beyond
being
released
parent
fuse
lysosomes
facilitate
removal
dysfunctional
mitochondria.
The
work
not
only
provides
new
insights
into
MV
physiology
also
inspires
design
strategies
for
used
studies.
Biomedicine & Pharmacotherapy,
Journal Year:
2023,
Volume and Issue:
161, P. 114557 - 114557
Published: March 22, 2023
Extracellular
vesicles
(EVs)
derived
from
mesenchymal
stem
cells
(MSCs),
due
to
their
inner
functional
substances,
have
shown
great
value
in
treating
acute
myocardial
infarction
(AMI).
However,
clinical
application
is
limited
by
a
low
yield.
In
the
present
study,
we
cultured
EVs
using
hollow
fiber
bioreactor-based
three-dimensional
(3D)
system,
and
assessed
therapeutic
effectiveness
on
AMI.The
MSCs
separated
fresh
human
umbilical
cord
were
planted
into
flasks
of
two
systems:
two-dimensional
(2D)
culture
hollow-fiber-bioreactor
based
3D
culture.
extracted
supernatants.
Characteristics
yields
systems,
namely
2D-EVs
3D-EVs,
compared.
A
rat
model
AMI
was
built
up
assess
efficacy
yield
3D-EVs
higher,
with
biofunctions
similar
those
2D-EVs.
repressed
apoptosis
cardiomyocytes,
facilitated
angiogenesis,
regulated
transition
macrophage
subpopulations
after
infarction,
eventually
improved
cardiac
function
rats.The
system
can
increase
MSCs-derived
render
strong
cardioprotective
effect
rats.
The EMBO Journal,
Journal Year:
2023,
Volume and Issue:
42(21)
Published: Sept. 25, 2023
Abstract
Primary
cilia
project
from
the
surface
of
most
vertebrate
cells
and
are
key
in
sensing
extracellular
signals
locally
transducing
this
information
into
a
cellular
response.
Recent
findings
show
that
primary
not
merely
static
organelles
with
distinct
lipid
protein
composition.
Instead,
function
relies
on
dynamic
composition
molecules
within
cilium,
context‐dependent
processing
stimuli,
cycles
assembly
disassembly
cell‐
tissue‐specific
manner.
Thereby,
dynamically
integrate
different
inputs
control
cell
fate
during
tissue
development.
Here,
we
review
recently
emerging
concept
dynamics
development,
organization,
remodeling,
function.