Role of Glial Cells in Neuronal Function, Mood Disorders, and Drug Addiction
Brain Sciences,
Journal Year:
2024,
Volume and Issue:
14(6), P. 558 - 558
Published: May 30, 2024
Mood
disorders
and
substance
use
disorder
(SUD)
are
of
immense
medical
social
concern.
Although
significant
progress
on
neuronal
involvement
in
mood
reward
circuitries
has
been
achieved,
it
is
only
relatively
recently
that
the
role
glia
these
attracted
attention.
Detailed
understanding
glial
functions
devastating
diseases
could
offer
novel
interventions.
Here,
following
a
brief
review
involved
regulation
perception,
specific
contributions
neurotrophic
factors,
neuroinflammation,
gut
microbiota
to
highlighted.
In
this
context,
cells
(e.g.,
microglia,
astroglia,
oligodendrocytes,
synantocytes)
phenotypic
manifestation
or
SUD
emphasized.
addition,
knowledge
potential
development
therapeutics
touched
upon.
Language: Английский
Heavy Metal Interactions with Neuroglia and Gut Microbiota: Implications for Huntington’s Disease
Yousef Tizabi,
No information about this author
Samia Bennani,
No information about this author
Nacer El Kouhen
No information about this author
et al.
Cells,
Journal Year:
2024,
Volume and Issue:
13(13), P. 1144 - 1144
Published: July 3, 2024
Huntington’s
disease
(HD)
is
a
rare
but
progressive
and
devastating
neurodegenerative
characterized
by
involuntary
movements,
cognitive
decline,
executive
dysfunction,
neuropsychiatric
conditions
such
as
anxiety
depression.
It
follows
an
autosomal
dominant
inheritance
pattern.
Thus,
child
who
has
parent
with
the
mutated
huntingtin
(mHTT)
gene
50%
chance
of
developing
disease.
Since
HTT
protein
involved
in
many
critical
cellular
processes,
including
neurogenesis,
brain
development,
energy
metabolism,
transcriptional
regulation,
synaptic
activity,
vesicle
trafficking,
cell
signaling,
autophagy,
its
aberrant
aggregates
lead
to
disruption
numerous
pathways
neurodegeneration.
Essential
heavy
metals
are
vital
at
low
concentrations;
however,
higher
concentrations,
they
can
exacerbate
HD
disrupting
glial–neuronal
communication
and/or
causing
dysbiosis
(disturbance
gut
microbiota,
GM),
both
which
neuroinflammation
further
Here,
we
discuss
detail
interactions
iron,
manganese,
copper
glial–neuron
GM
indicate
how
this
knowledge
may
pave
way
for
development
new
generation
disease-modifying
therapies
HD.
Language: Английский
Nicotinic Acetylcholine Receptors in Glial Cells as Molecular Target for Parkinson’s Disease
Published: Jan. 31, 2024
Parkinson’s
disease
(PD)
is
a
progressive
neurodegenerative
characterized
by
resting
tremor,
bradykinesia,
rigidity,
postural
instability,
that
also
includes
non-motor
symptoms
such
as
mood
dysregulation.
Dopamine
(DA)
the
primary
neurotransmitter
involved
in
this
disease,
but
cholinergic
imbalance
has
been
implicated.
Current
intervention
PD
focused
on
replenishing
central
DA,
which
provides
remarkable
temporary
symptomatic
relief
does
not
address
neuronal
losss
and
progression
of
disease.
It
well
established
nicotinic
receptors
(nAChRs)
can
regulate
DA
release
nicotine
itself
may
have
neuroprotective
effects.
Recent
studies
identified
nAChRs
nonneuronal
cell
types
including
glial
cells,
where
they
inflammatory
responses.
Given
crucial
role
neuroinflammation
dopaminergic
degeneration,
involvement
microglia
astrocytes
response,
provide
novel
therapeutic
target
prevention
and/or
treatment
PD.
In
review,
following
brief
discussion
PD,
we
focus
cells
specifically
their
pathology
treatment.
Language: Английский
Intercellular Adhesion Molecule 1 (ICAM-1): An Inflammatory Regulator with Potential Implications in Ferroptosis and Parkinson’s Disease
Matthew Miller,
No information about this author
Harold E. Landis,
No information about this author
Robert E. Miller
No information about this author
et al.
Cells,
Journal Year:
2024,
Volume and Issue:
13(18), P. 1554 - 1554
Published: Sept. 15, 2024
Intercellular
adhesion
molecule
1
(ICAM-1/CD54),
a
transmembrane
glycoprotein,
has
been
considered
as
one
of
the
most
important
molecules
during
leukocyte
recruitment.
It
is
encoded
by
ICAM1
gene
and
plays
central
role
in
inflammation.
Its
crucial
many
inflammatory
diseases
such
ulcerative
colitis
rheumatoid
arthritis
are
well
established.
Given
that
neuroinflammation,
underscored
microglial
activation,
key
element
neurodegenerative
Parkinson’s
disease
(PD),
we
investigated
whether
ICAM-1
this
progressive
neurological
condition
and,
if
so,
to
elucidate
underpinning
mechanisms.
Specifically,
were
interested
potential
interaction
between
ICAM-1,
glial
cells,
ferroptosis,
an
iron-dependent
form
cell
death
recently
implicated
PD.
We
conclude
there
exist
direct
indirect
(via
cells
T
cells)
influences
on
ferroptosis
further
elucidation
these
interactions
can
suggest
novel
intervention
for
devastating
disease.
Language: Английский
Electrophysiological and Behavioral Markers of Hyperdopaminergia in DAT-KO Rats
Biomedicines,
Journal Year:
2024,
Volume and Issue:
12(9), P. 2114 - 2114
Published: Sept. 17, 2024
Background/Objectives:
Dopamine
dysfunction
(DA)
is
a
hallmark
of
many
neurological
disorders.
In
this
case,
the
mechanism
changes
in
dopamine
transmission
on
behavior
remains
unclear.
This
study
look
into
intricate
link
between
disrupted
DA
signaling,
neuronal
activity
patterns,
and
behavioral
abnormalities
hyperdopaminergic
animal
model.
Methods:
To
relationship
altered
levels,
activity,
deficits,
local
field
potentials
(LFPs)
were
recorded
during
four
different
behaviors
transporter
knockout
rats
(DAT-KO).
At
same
time,
striatum
prefrontal
cortex.
Correlates
LFP
accompanying
patterns
genetically
modified
(DAT-KO)
control
animals
studied.
Results:
DAT-KO
exhibited
desynchronization
LFPs
cortex,
particularly
exploratory
behavior.
A
suppressive
effect
high
levels
was
also
observed.
Wild-type
showed
greater
variability
across
certain
behaviors,
while
more
uniform
patterns.
Conclusions:
The
decisive
role
synchrony
STR
PFC
neurons
organization
motor
acts
has
been
revealed.
forms
probably
suggests
adaptability.
More
rats,
indicating
loss
striatal
flexibility
when
adapting
to
specific
tasks.
It
likely
that
hyperdopaminergy
rat
reduces
efficiency
information
processing
due
less
synchronized
active
Language: Английский