The mechanopathology of the tumor microenvironment: detection techniques, molecular mechanisms and therapeutic opportunities
Simón I. Angeli,
No information about this author
Constantina Neophytou,
No information about this author
Maria Kalli
No information about this author
et al.
Frontiers in Cell and Developmental Biology,
Journal Year:
2025,
Volume and Issue:
13
Published: March 18, 2025
The
mechanical
properties
of
the
tumor
microenvironment
(TME)
undergo
significant
changes
during
growth,
primarily
driven
by
alterations
in
extracellular
(ECM)
stiffness
and
viscoelasticity.
These
not
only
promote
progression
but
also
hinder
therapeutic
efficacy
impairing
drug
delivery
activating
mechanotransduction
pathways
that
regulate
crucial
cellular
processes
such
as
migration,
proliferation,
resistance
to
therapy.
In
this
review,
we
examine
mechanisms
through
which
cells
sense
transmit
signals
maintain
homeostasis
biomechanically
altered
TME.
We
explore
current
computational
modelling
strategies
for
pathways,
highlighting
need
developing
models
incorporate
additional
components
mechanosignaling
machinery.
Furthermore,
review
available
methods
measuring
tumors
clinical
settings
aiming
at
restoring
TME
blocking
deregulated
pathways.
Finally,
propose
proper
characterization
a
deeper
understanding
landscape
TME,
both
tissue
levels,
are
essential
account
influence
forces
on
treatment
efficacy.
Language: Английский
Mechanotransduction in Development: A Focus on Angiogenesis
Biology,
Journal Year:
2025,
Volume and Issue:
14(4), P. 346 - 346
Published: March 27, 2025
Cells
respond
to
external
mechanical
cues
and
transduce
these
forces
into
biological
signals.
This
process
is
known
as
mechanotransduction
requires
a
group
of
proteins
called
mechanosensors.
peculiar
class
receptors
include
extracellular
matrix
proteins,
plasma
membrane
the
cytoskeleton
nuclear
envelope.
These
cell
components
are
responsive
wide
spectrum
physical
including
stiffness,
tensile
force,
hydrostatic
pressure
shear
stress.
Among
mechanotransducers,
Transient
Receptor
Potential
(TRP)
PIEZO
family
members
mechanosensitive
ion
channels,
coupling
force
transduction
with
intracellular
cation
transport.
Their
activity
contributes
embryo
development,
tissue
remodeling
repair,
homeostasis.
In
particular,
vessel
development
driven
by
hemodynamic
such
flow
direction
Perturbed
involved
in
several
pathological
vascular
phenotypes
hereditary
hemorrhagic
telangiectasia.
review
conceived
summarize
most
recent
findings
development.
We
first
collected
main
features
proteins.
However,
we
focused
on
role
during
Mechanosensitive
channels
their
function
also
discussed,
focus
brain
morphogenesis.
Language: Английский
B cell mechanobiology in health and disease: emerging techniques and insights into therapeutic responses
Marta Sampietro,
No information about this author
Marco Cellani,
No information about this author
Cristina Scielzo
No information about this author
et al.
FEBS Letters,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 19, 2025
Cells
sense
physical
cues
from
their
environment
and
convert
them
into
biochemical
responses
through
mechanotransduction.
Unlike
solid
tumours,
the
role
of
such
forces
in
haematological
cancers
is
underexplored.
In
this
context,
immune
cells
experience
dynamic
mechanical
stimuli
as
they
migrate,
extravasate
home
to
specific
tissues.
Understanding
how
these
shape
B‐cell
function
malignancy
represents
a
groundbreaking
area
research.
This
review
examines
key
mechanosensory
pathways
molecules
involved
lymphocyte
mechanotransduction,
beginning
with
proteins
at
plasma
membrane,
followed
by
intracellular
signal
propagation
cytoskeleton,
eventually
highlighting
nucleus
‘signal
actuator’.
Subsequently,
we
cover
some
measurement
approaches
advanced
systems
investigate
tumour
biomechanics,
application
context
B
cells.
Finally,
focus
on
implications
mechanobiology
leukaemia,
identifying
malignancies
that
could
serve
potential
‘mechano‐targets’
for
personalised
therapies.
emphasises
need
understand
lymphocytes
generate,
respond
stimuli,
which
open
avenues
future
biomedical
innovations.
Impact
statement
Our
particularly
valuable
underexplored
cell
malignancies,
while
also
discussing
emerging
techniques
can
advance
research
area.
It
bridges
immunology,
cancer
biology
way
will
be
interest
researchers
across
three
main
fields.
Language: Английский