Glia,
Год журнала:
2019,
Номер
68(3), С. 472 - 494
Опубликована: Авг. 16, 2019
Abstract
Glial
ion
transporters
are
important
in
regulation
of
ionic
homeostasis,
cell
volume,
and
cellular
signal
transduction
under
physiological
conditions
the
central
nervous
system
(CNS).
In
response
to
acute
or
chronic
brain
injuries,
these
can
be
activated
differentially
regulate
glial
functions,
which
has
subsequent
impact
on
injury
tissue
repair
functional
recovery.
this
review,
we
summarized
current
knowledge
about
major
transporters,
including
Na
+
/H
exchangers
(NHE),
/Ca
2+
(NCX),
–K
–Cl
−
cotransporters
(NKCC),
–HCO
3
(NBC).
neurological
diseases,
such
as
ischemic
stroke
traumatic
(TBI),
rapidly
play
significant
roles
intra‐
extracellular
pH,
,
K
Ca
synaptic
plasticity,
myelin
formation.
However,
overstimulation
contribute
apoptosis,
demyelination,
inflammation,
excitotoxicity.
glioma,
Alzheimer's
disease
(AD),
Parkinson's
(PD),
multiple
sclerosis
(MS),
involved
glioma
Warburg
effect,
activation,
neuroinflammation,
neuronal
damages.
These
findings
suggest
that
structural
restoration,
development
progression.
A
better
understanding
diseases
will
provide
insights
for
their
potential
therapeutic
targets.
Acta Neuropathologica Communications,
Год журнала:
2021,
Номер
9(1)
Опубликована: Март 25, 2021
Abstract
Glioblastoma
(GBM)
is
the
most
aggressive
and
deadliest
of
primary
brain
tumors,
characterized
by
malignant
growth,
invasion
into
parenchyma,
resistance
to
therapy.
GBM
a
heterogeneous
disease
high
degrees
both
inter-
intra-tumor
heterogeneity.
Another
layer
complexity
arises
from
unique
microenvironment
in
which
develops
grows.
The
consists
neoplastic
non-neoplastic
cells.
abundant
cells
are
those
innate
immune
system,
called
tumor-associated
macrophages
(TAMs).
TAMs
constitute
up
40%
tumor
mass
consist
brain-resident
microglia
bone
marrow-derived
myeloid
periphery.
Although
genetically
stable,
can
change
their
expression
profiles
based
upon
signals
that
they
receive
cells;
therefore,
heterogeneity
creates
TAMs.
By
interacting
with
other
microenvironment,
promote
progression.
Here,
we
review
origin,
heterogeneity,
functional
roles
In
addition,
discuss
prospects
therapeutically
targeting
alone
or
combination
standard
newly-emerging
therapies.
International Journal of Molecular Sciences,
Год журнала:
2023,
Номер
24(8), С. 7047 - 7047
Опубликована: Апрель 11, 2023
Glioblastoma
(GBM)
is
the
most
common
and
malignant
primary
brain
cancer
in
adults.
Without
treatment
mean
patient
survival
approximately
6
months,
which
can
be
extended
to
15
months
with
use
of
multimodal
therapies.
The
low
effectiveness
GBM
therapies
mainly
due
tumor
infiltration
into
healthy
tissue,
depends
on
cells’
interaction
microenvironment
(TME).
cells
TME
involves
cellular
components
such
as
stem-like
cells,
glia,
endothelial
non-cellular
extracellular
matrix,
enhanced
hypoxia,
soluble
factors
adenosine,
promote
GBM’s
invasiveness.
However,
here
we
highlight
role
3D
patient-derived
glioblastoma
organoids
cultures
a
new
platform
for
study
modeling
In
this
review,
mechanisms
involved
GBM-microenvironment
are
described
discussed,
proposing
potential
prognosis
biomarkers
therapeutic
targets.
Nature Communications,
Год журнала:
2023,
Номер
14(1)
Опубликована: Дек. 16, 2023
How
aging
affects
cells
of
the
human
brain
active
milieu
remains
largely
unknown.
Here,
we
analyze
astrocytes
and
neurons
in
neocortical
tissue
younger
(22-50
years)
older
(51-72
adults.
Aging
decreases
amount
reduced
mitochondrial
cytochromes
but
not
neurons.
The
protein-to-lipid
ratio
increases
Aged
show
morphological
atrophy
quantified
by
decreased
length
branches,
volume
fraction
leaflets,
shrinkage
anatomical
domain.
Atrophy
correlates
with
loss
gap
junction
coupling
between
increased
input
resistance.
is
accompanied
upregulation
glial
fibrillary
acidic
protein
(GFAP)
downregulation
membrane-cytoskeleton
linker
ezrin
associated
leaflets.
No
significant
changes
neuronal
excitability
or
spontaneous
inhibitory
postsynaptic
signaling
observed.
Thus,
impaired
presence
malfunction
cortical
astrocytes,
Journal of Translational Medicine,
Год журнала:
2024,
Номер
22(1)
Опубликована: Июнь 6, 2024
Abstract
The
adaptability
of
glioblastoma
(GBM)
cells,
encouraged
by
complex
interactions
with
the
tumour
microenvironment
(TME),
currently
renders
GBM
an
incurable
cancer.
Despite
intensive
research,
many
clinical
trials,
patients
rely
on
standard
treatments
including
surgery
followed
radiation
and
chemotherapy,
which
have
been
observed
to
induce
a
more
aggressive
phenotype
in
recurrent
tumours.
This
failure
improve
is
undoubtedly
result
insufficient
models
fail
incorporate
components
human
brain
TME.
Research
has
increasingly
uncovered
mechanisms
tumour-TME
that
correlate
worsened
patient
prognoses,
tumour-associated
astrocyte
mitochondrial
transfer,
neuronal
circuit
remodelling
immunosuppression.
hijacked
TME
highly
implicated
driving
therapy
resistance,
further
alterations
within
resulting
from
exposure
inducing
increased
growth
invasion.
Recent
developments
improving
organoid
models,
aspects
TME,
are
paving
exciting
future
for
research
drug
development
GBM,
hopes
survival
growing
closer.
review
focuses
GBMs
their
effect
pathology
treatment
efficiency,
look
at
challenges
face
sufficiently
recapitulating
this
adaptive
Biochemical Society Transactions,
Год журнала:
2019,
Номер
47(2), С. 625 - 638
Опубликована: Март 22, 2019
Abstract
Glioblastoma
is
the
deadliest
form
of
brain
cancer.
Aside
from
inadequate
treatment
options,
one
main
reasons
glioblastoma
so
lethal
rapid
growth
tumour
cells
coupled
with
continuous
cell
invasion
into
surrounding
healthy
tissue.
Significant
intra-
and
inter-tumour
heterogeneity
associated
differences
in
corresponding
microenvironments
contributes
greatly
to
progression.
Within
this
microenvironment,
extracellular
matrix
profoundly
influences
way
cancer
become
invasive,
changes
(pH
oxygen
levels)
metabolic
(glucose
lactate)
components
support
growth.
Furthermore,
studies
on
clinical
samples
have
revealed
that
microenvironment
highly
immunosuppressive
which
failure
immunotherapy
treatments.
Although
technically
possible,
many
not
yet
been
focus
therapies,
despite
growing
evidence
its
importance
malignancy.
Here,
we
review
recent
progress
characterisation
sources
human
material.
We
also
discuss
latest
advances
technologies
for
personalised
vitro
preclinical
using
organoid
models
better
model
interactions
tissue,
may
play
an
essential
role
developing
new
more
treatments
aggressive
type
Advanced Materials,
Год журнала:
2020,
Номер
33(5)
Опубликована: Дек. 16, 2020
Abstract
Glioblastoma
(GBM)
is
the
most
prevalent
and
lethal
adult
primary
central
nervous
system
cancer.
An
immunosuppresive
highly
heterogeneous
tumor
microenvironment,
restricted
delivery
of
chemotherapy
or
immunotherapy
through
blood–brain
barrier
(BBB),
together
with
brain's
unique
biochemical
anatomical
features
result
in
its
universal
recurrence
poor
prognosis.
As
conventional
models
fail
to
predict
therapeutic
efficacy
GBM,
vitro
3D
GBM
BBB
leveraging
patient‐
healthy‐individual‐derived
cells
biomaterials
bioprinting
technologies
potentially
mimic
essential
physiological
pathological
BBB.
3D‐bioprinted
constructs
enable
investigation
cellular
cell–extracellular
matrix
interactions
a
species‐matched,
high‐throughput,
reproducible
manner,
serving
as
screening
drug
platforms.
Here,
an
overview
current
provided,
elaborating
on
microenvironmental
compositions
BBB,
relevant
native
tissues,
strategies
implement
model
fabrication.
Collectively,
are
promising
systems
biomimetic
alternatives
traditional
for
more
reliable
mechanistic
studies
preclinical
screenings
that
may
eventually
accelerate
development
process
GBM.
Oncogene,
Год журнала:
2020,
Номер
39(23), С. 4477 - 4490
Опубликована: Май 4, 2020
Abstract
Glioblastoma
(GBM)
is
the
most
common
and
aggressive
brain
tumour.
Prognosis
remains
poor,
despite
combined
treatment
of
radio-
chemotherapy
following
surgical
removal.
GBM
cells
coexist
with
normal
non-neoplastic
cells,
including
endothelial
astrocytes
immune
constituting
a
complex
dynamic
tumour
micro-environment
(TME).
Extracellular
vesicles
(EVs)
provide
critical
means
bidirectional
inter-cellular
communication
in
TME.
Through
delivery
diverse
range
genomic,
lipidomic
proteomic
cargo
to
neighbouring
distant
EVs
can
alter
phenotype
function
recipient
cell.
As
such,
have
demonstrated
their
role
promoting
angiogenesis,
suppression,
invasion,
migration,
drug
resistance
recurrence.
Moreover,
reflect
within
Thus,
conjunction
accessibility
biofluids,
they
potentially
serve
as
biomarker
reservoir
for
patient
prognosis,
diagnosis
predictive
therapeutic
response
well
follow-up.
Furthermore,
together
ability
cross
blood–brain
barrier
undeterred
through
exploitation
cargo,
may
an
effective
mean
target
site.
Unveiling
mechanisms
by
which
TME
are
secreted
offer
indispensable
understanding
that
holds
potential
better
prognosis
overall
quality
life
patients.
Convection
enhanced
delivery
(CED)
is
a
method
used
to
increase
transport
of
therapeutics
in
and
around
brain
tumors.
CED
works
through
locally
applying
pressure
differential
drive
fluid
flow
throughout
the
tumor,
such
that
convective
forces
dominate
over
diffusive
transport.
This
allows
therapies
bypass
blood
barrier
would
otherwise
be
too
large
or
solely
rely
on
passive
diffusion.
However,
this
also
drives
out
tumor
bulk
into
surrounding
parenchyma,
which
results
increased
interstitial
(IF)
flow,
within
extracellular
spaces
tissue.
Interstitial
has
been
associated
with
altered
molecules,
matrix
rearrangement,
triggering
cellular
motility
number
mechanisms.
Thus,
simple
drug
may
have
unintended
consequences
tissue
morphology.
Clinically,
prediction
dispersal
agents
via
convection
important
catheter
design,
placement,
implementation
optimize
contact
cells
therapeutic
agent.
Prediction
software
can
aid
problem,
yet
we
wonder
if
there
better
way
predict
distribution
based
simply
pathways
as
determined
from
pre-intervention
imaging.
Overall,
therapy
seen
limited
success
posit
integration
appreciation
IF
enhance
outcomes.
manuscript
both
review
current
state
art
mechanistic
understanding
relate
these
two
elements
each
other
clinical
context.