Interactions of mitochondrial and skeletal muscle biology in mitochondrial myopathy
Biochemical Journal,
Год журнала:
2023,
Номер
480(21), С. 1767 - 1789
Опубликована: Ноя. 15, 2023
Mitochondrial
dysfunction
in
skeletal
muscle
fibres
occurs
with
both
healthy
aging
and
a
range
of
neuromuscular
diseases.
The
impact
mitochondrial
the
way
adapt
to
this
is
important
understand
disease
mechanisms
develop
therapeutic
interventions.
Furthermore,
interactions
between
biology,
myopathy,
likely
have
implications
for
normal
function
physiology.
In
review,
we
will
try
give
an
overview
what
known
date
about
these
including
metabolic
remodelling,
morphology,
turnover,
cellular
processes
cell
structure
function.
Each
topics
at
different
stage
understanding,
some
being
well
researched
understood,
others
their
infancy.
know
comes
from
models.
Whilst
findings
are
confirmed
humans,
where
not
yet
case,
must
be
cautious
interpreting
context
human
disease.
Here,
our
goal
discuss
known,
highlight
unknown
perspective
on
future
direction
research
area.
Язык: Английский
Cellular deconstruction of the human skeletal muscle microenvironment identifies an exercise-induced histaminergic crosstalk
Cell Metabolism,
Год журнала:
2025,
Номер
unknown
Опубликована: Фев. 1, 2025
Plasticity
of
skeletal
muscle
is
induced
by
transcriptional
and
translational
events
in
response
to
exercise,
leading
multiple
health
performance
benefits.
The
microenvironment
harbors
myofibers
mononuclear
cells,
but
the
rich
cell
diversity
has
been
largely
ignored
relation
exercise
adaptations.
Using
our
workflow
transcriptome
profiling
individual
myofibers,
we
observed
that
their
exercise-induced
was
surprisingly
modest
compared
with
bulk
tissue
response.
Through
integration
single-cell
data,
identified
a
small
mast
population
likely
responsible
for
histamine
secretion
during
targeting
myeloid
vascular
cells
rather
than
myofibers.
We
demonstrated
through
H1
or
H2
receptor
blockade
humans
this
paracrine
signaling
cascade
drives
glycogen
resynthesis
coordinates
Altogether,
cellular
deconstruction
human
uncovers
histamine-driven
intercellular
communication
network
steering
recovery
adaptation
exercise.
Язык: Английский