Gels,
Journal Year:
2024,
Volume and Issue:
10(7), P. 476 - 476
Published: July 18, 2024
Stroke
remains
the
second
leading
cause
of
death
and
a
major
disability
worldwide,
significantly
impacting
individuals,
families,
healthcare
systems.
This
neurological
emergency
can
be
triggered
by
ischemic
events,
including
small
vessel
arteriolosclerosis,
cardioembolism,
large
artery
atherothromboembolism,
as
well
hemorrhagic
incidents
resulting
from
macrovascular
lesions,
venous
sinus
thrombosis,
or
vascular
malformations,
to
significant
neuronal
damage.
The
resultant
motor
impairment,
cognitive
dysfunction,
emotional
disturbances
underscore
urgent
need
for
effective
therapeutic
interventions.
Recent
advancements
in
biomaterials,
particularly
hydrogels,
offer
promising
new
avenues
stroke
management.
Hydrogels,
composed
three-dimensional
networks
hydrophilic
polymers,
are
notable
their
ability
absorb
retain
substantial
amounts
water.
Commonly
used
polymers
hydrogel
formulations
include
natural
like
alginate,
chitosan,
collagen,
synthetic
such
polyethylene
glycol
(PEG),
polyvinyl
alcohol
(PVA),
polyacrylamide.
Their
customizable
characteristics—such
porosity,
swelling
behavior,
mechanical
strength,
degradation
rates—make
hydrogels
ideal
biomedical
applications,
drug
delivery,
cell
tissue
engineering,
controlled
release
agents.
review
comprehensively
explores
hydrogel-based
approaches
both
therapy,
elucidating
mechanisms
which
provide
neuroprotection.
It
covers
application
delivery
systems,
role
reducing
inflammation
secondary
injury,
potential
support
neurogenesis
angiogenesis.
also
discusses
current
technology
challenges
translating
these
innovations
research
into
clinical
practice.
Additionally,
it
emphasizes
limited
number
trials
utilizing
therapies
addresses
associated
limitations
constraints,
underscoring
further
this
field.
Pharmaceuticals,
Journal Year:
2023,
Volume and Issue:
16(4), P. 571 - 571
Published: April 10, 2023
Drug
delivery
to
the
central
nervous
system
(CNS)
is
limited
due
presence
of
blood–brain
barrier
(BBB),
a
selective
physiological
located
at
brain
microvessels
that
regulates
flow
cells,
molecules
and
ions
between
blood
brain.
Exosomes
are
nanosized
extracellular
vesicles
expressed
by
all
cell
types
function
as
cargos,
allowing
for
communication
cells.
The
exosomes
were
shown
cross
or
regulate
BBB
in
healthy
disease
conditions.
However,
mechanistic
pathways
which
have
not
been
fully
elucidated
yet.
In
this
review,
we
explore
transport
mechanisms
through
BBB.
A
large
body
evidence
suggests
exosome
occurs
primarily
transcytosis.
transcytosis
influenced
several
regulators.
Inflammation
metastasis
also
enhance
trafficking
across
We
shed
light
on
therapeutical
applications
treating
diseases.
Further
investigations
essential
provide
clearer
insights
related
treatment.
International Journal of Nanomedicine,
Journal Year:
2023,
Volume and Issue:
Volume 18, P. 7923 - 7940
Published: Dec. 1, 2023
Exosomes
are
nano-sized
membrane
vesicles
that
transfer
bioactive
molecules
between
cells
and
modulate
various
biological
processes
under
physiological
pathological
conditions.
By
applying
bioengineering
technologies,
exosomes
can
be
modified
to
express
specific
markers
or
carry
therapeutic
cargo
emerge
as
novel
platforms
for
the
treatment
of
cancer,
neurological,
cardiovascular,
immune,
infectious
diseases.
However,
there
many
challenges
uncertainties
in
clinical
translation
exosomes.
This
review
aims
provide
an
overview
recent
advances
engineered
exosomes,
with
a
special
focus
on
methods
strategies
loading
drugs
into
pros
cons
different
methods,
optimization
exosome
production
based
encapsulated.
Moreover,
we
also
summarize
current
applications
prospects
well
potential
risks
limitations
need
addressed
engineering,
including
standardization
preparation
engineering
protocols,
quality
quantity
control
drug
release,
immunogenicity
cytotoxicity
Overall,
represent
exciting
frontier
nanomedicine,
but
they
still
face
large-scale
production,
maintenance
storage
stability,
translation.
With
continuous
this
field,
exosome-based
formulation
could
offer
great
promise
targeted
human
Extracellular Vesicle,
Journal Year:
2023,
Volume and Issue:
3, P. 100032 - 100032
Published: Dec. 9, 2023
Exosomes
are
nanovesicles
released
from
cells
due
to
pathophysiological
events.
These
nanoparticles
resistant
metabolic
destruction
and
can
transcend
the
blood-brain
barrier.
Exosome
therapy
could
be
employed
as
precision
medicine
by
targeting
underlying
etiology.
This
article
briefly
elucidates
basic
physiology
of
exosomes,
their
types,
characteristics,
cargo
that
for
drug
administration.
It
then
delves
into
therapeutic
applications,
such
oncology,
neurological
disorders,
regenerative
medicine.
Exosome-based
delivery
using
small
molecules,
nucleic
acids,
proteins
is
also
demonstrated.
Finally,
global
organizations
successfully
creating
testing
medicinal
biomaterials
highlighted.
Experimental & Molecular Medicine,
Journal Year:
2024,
Volume and Issue:
56(1), P. 19 - 31
Published: Jan. 4, 2024
Abstract
Cancer
immunotherapy
has
revolutionized
the
approach
to
cancer
treatment
of
malignant
tumors
by
harnessing
body’s
immune
system
selectively
target
cells.
Despite
remarkable
advances,
there
are
still
challenges
in
achieving
successful
clinical
responses.
Recent
evidence
suggests
that
cell-derived
exosomes
modulate
generate
effective
antitumor
responses,
making
them
a
cutting-edge
therapeutic
strategy.
However,
natural
limited
application
due
their
low
drug
delivery
efficiency
and
insufficient
capacity.
Technological
advancements
have
allowed
exosome
modifications
magnify
intrinsic
functions,
load
different
cargoes,
preferentially
tumor
sites.
These
engineered
exert
potent
effects
great
potential
for
immunotherapy.
In
this
review,
we
describe
ingenious
modification
strategies
attain
desired
performance.
Moreover,
systematically
summarize
tumor-controlling
properties
innate
adaptive
immunity.
Collectively,
review
provides
comprehensive
intuitive
guide
modified
exosome-based
approaches,
offering
valuable
enhance
optimize
Theranostics,
Journal Year:
2024,
Volume and Issue:
14(5), P. 2099 - 2126
Published: Jan. 1, 2024
Exosomes,
which
are
small
vesicles
enclosed
by
a
lipid
bilayer
and
released
many
cell
types,
widely
dispersed
have
garnered
increased
attention
in
the
field
of
regenerative
medicine
due
to
their
ability
serve
as
indicators
diseases
agents
with
therapeutic
potential.
Exosomes
play
crucial
role
mediating
intercellular
communication
through
transfer
biomolecules,
including
proteins,
lipids,
RNA,
other
molecular
constituents,
between
cells.
The
targeted
transport
proteins
nucleic
acids
specific
cells
has
potential
enhance
or
impair
biological
functions.
applications,
they
can
be
used
alone
combination
approaches.
examination
unique
attributes
functions
these
factors
emerged
prominent
study
realm
biomedical
research.
This
manuscript
summarizes
origins
properties
exosomes,
structural,
biological,
physical,
chemical
aspects.
paper
offers
complete
recent
progress
tissue
repair
medicine,
emphasizing
possible
implications
methods
forthcoming
regeneration
attempts.
Journal of Drug Delivery Science and Technology,
Journal Year:
2023,
Volume and Issue:
85, P. 104579 - 104579
Published: May 18, 2023
Exosomes
are
multivesicular
bodies
of
which
the
plasma
membrane
fuse
to
release
caring
moiety
into
surrounding
body
fluids.
They
best
known
for
their
function
in
mediating
intercellular
connectivity
by
transferring
various
biomolecules,
such
as
proteins,
RNAs,
and
lipids,
from
one
cell
another.
These
"naturally
equipped"
nanovesicles
could
be
therapeutically
targeted
or
engineered
drug
delivery
systems.
The
use
exosomes
cancer
detection
prognosis
has
attracted
a
great
deal
interest
academics.
In
addition
chemical,
biological,
genetic
engineering
approaches,
other
current
exosomal
alteration
methodologies
hold
promise
advancement
therapeutic
medicines
cancer.
this
review,
we
highlight
theranostic
potential
cancers.
Pharmaceuticals,
Journal Year:
2025,
Volume and Issue:
18(1), P. 104 - 104
Published: Jan. 15, 2025
Cytokine-mediated
inflammation
is
increasingly
recognized
for
playing
a
vital
role
in
the
pathophysiology
of
wide
range
brain
disorders,
including
neurodegenerative,
psychiatric,
and
neurodevelopmental
problems.
Pro-inflammatory
cytokines
such
as
interleukin-1
(IL-1),
tumor
necrosis
factor-alpha
(TNF-α),
interleukin-6
(IL-6)
cause
neuroinflammation,
alter
function,
accelerate
disease
development.
Despite
progress
understanding
these
pathways,
effective
medicines
targeting
are
still
limited.
Traditional
anti-inflammatory
immunomodulatory
drugs
peripheral
inflammatory
illnesses.
Still,
they
face
substantial
hurdles
when
applied
to
central
nervous
system
(CNS),
blood-brain
barrier
(BBB)
unwanted
systemic
effects.
This
review
highlights
developing
treatment
techniques
modifying
cytokine-driven
focusing
on
advances
that
selectively
target
critical
involved
pathology.
Novel
approaches,
cytokine-specific
inhibitors,
antibody-based
therapeutics,
gene-
RNA-based
interventions,
sophisticated
drug
delivery
systems
like
nanoparticles,
show
promise
with
respect
lowering
neuroinflammation
greater
specificity
safety.
Furthermore,
developments
biomarker
discoveries
neuroimaging
improving
our
ability
monitor
responses,
allowing
more
accurate
personalized
regimens.
Preclinical
clinical
trial
data
demonstrate
therapeutic
potential
tailored
techniques.
However,
significant
challenges
remain,
across
BBB
reducing
off-target
As
research
advances,
creation
personalized,
cytokine-centered
therapeutics
has
therapy
landscape
illnesses,
giving
patients
hope
better
results
higher
quality
life.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 21, 2025
Abstract
The
development
of
new
non‐neurotransmitter
drugs
is
an
important
supplement
to
the
clinical
treatment
major
depressive
disorder.
latest
mRNA
therapy
provides
possibility
for
some
diseases.
endoplasmic
reticulum
(ER)
and
mitochondria
constitute
a
highly
interconnected
set
fundamental
organelles
within
cells.
interconnection
between
them
forms
specific
microdomains
that
play
pivotal
roles
in
calcium
signaling,
mitochondrial
dynamics,
inflammation,
autophagy.
Perturbations
ER‐mitochondrial
connections
may
contribute
progression
neurological
disorders
other
Herein,
extracellular
vesicles‐based
delivery
system,
grounded
gene
integrated
with
nanomedicine
technology
devised.
This
system
engineered
traverse
blood–brain
barrier
specifically
target
central
nervous
(CNS),
facilitating
simultaneous
metallic
nanozymes
into
brain.
dual‐pronged
approach,
targeting
ER
crosstalk,
inhibits
microglial
overactivation,
promotes
M2
polarization
microglia,
suppresses
NF‐κB
signaling
pathway.
Consequently,
it
significantly
alleviates
Lipopolysaccharides‐induced
neuroinflammatory
responses
ameliorates
anxiety‐
depression‐like
behaviors.
study
demonstrates
novel
antidepressant
therapeutic
strategy
establishes
paradigm
CNS