The ‘in’s and out’s’ of descending pain modulation from the rostral ventromedial medulla
Trends in Neurosciences,
Journal Year:
2024,
Volume and Issue:
unknown
Published: May 1, 2024
Language: Английский
Morphine-responsive neurons that regulate mechanical antinociception
Science,
Journal Year:
2024,
Volume and Issue:
385(6712)
Published: Aug. 29, 2024
Opioids
are
widely
used,
effective
analgesics
to
manage
severe
acute
and
chronic
pain,
although
they
have
recently
come
under
scrutiny
because
of
epidemic
levels
abuse.
While
these
compounds
act
on
numerous
central
peripheral
pain
pathways,
the
neuroanatomical
substrate
for
opioid
analgesia
is
not
fully
understood.
By
means
single-cell
transcriptomics
manipulation
morphine-responsive
neurons,
we
identified
an
ensemble
neurons
in
rostral
ventromedial
medulla
(RVM)
that
regulates
mechanical
nociception
mice.
Among
these,
forced
activation
or
silencing
excitatory
RVM
Language: Английский
Temporomandibular disorders and mental health: shared etiologies and treatment approaches
Jiamin Wan,
No information about this author
Jiu Lin,
No information about this author
Tingfeng Zha
No information about this author
et al.
The Journal of Headache and Pain,
Journal Year:
2025,
Volume and Issue:
26(1)
Published: March 12, 2025
The
biopsychosocial
model
suggests
that
temporomandibular
disorders
(TMDs)
often
coexist
with
mental
health
disorders,
particularly
depression
and
anxiety,
affecting
a
significant
portion
of
the
global
population.
interplay
between
TMDs
contributes
to
complex
comorbidity,
perpetuating
cycle
mutual
influence
reinforcement.
This
review
investigates
neurobiological
mechanisms
epidemiological
evidence
supporting
shared
etiology
exploring
potential
vulnerabilities
bidirectional
causal
relationships.
Shared
may
stem
from
genetic
epigenetic
predispositions,
psychosocial
factors,
behavioral
aspects.
Inflammatory
cytokines,
neurotransmitters,
neurotrophins,
neuropeptides
play
pivotal
roles
in
both
peripheral
central
sensitization
as
well
neuroinflammation.
Brain
imaging
studies
suggest
exhibit
overlapping
brain
regions
indicative
reward
processing
deficits
anomalies
within
triple
network
model.
Future
research
efforts
are
crucial
for
developing
comprehensive
understanding
underlying
confirming
reciprocal
effects
disorders.
provides
valuable
insights
oral
healthcare
professionals,
stressing
importance
optimizing
treatment
strategies
individuals
dealing
concurrent
issues
through
personalized,
holistic,
multidisciplinary
approach.
Language: Английский
A brainstem circuit controls cough-like airway defensive behaviors in mice
Xiaoshan Xu,
No information about this author
Xiupeng Nie,
No information about this author
Weijia Zhang
No information about this author
et al.
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 15, 2024
Abstract
The
respiratory
tract
is
subject
to
complex
neural
control
for
eupneic
breathing
and
distinct
airway
defensive
reflexes.
Growing
evidence
has
highlighted
significant
heterogeneity
of
airway-innervating
vagal
sensory
neurons
in
mediating
various
functions,
however,
the
central
neuronal
pathways
circuits
involved
regulation
remain
less
understood.
Combining
whole-body
plethysmography
(WBP),
audio,
video
tracking
access
behaviors
conscious
animals,
we
developed
a
quantitative
paradigm
implementing
mouse
as
model
study
cough-like
behaviors.
Using
TRAP2
transgenic
mice
vivo
fiber
photometry,
found
that
activity
caudal
spinal
trigeminal
nucleus
(SP5C)
strongly
correlated
with
tussigen-evoked
responses.
Impairing
synaptic
outputs
or
chemogenetic
inhibition
SP5C
effectively
abolished
these
Optogenetic
stimulation
excitatory
their
projections
ventral
group
(VRG)
triggered
robust
without
tussive
stimuli.
Notably,
tonic
elevation
excitability
caused
spontaneous
activities
chronically
mice.
Together,
our
data
provide
strong
previously
unrecognized
brainstem
circuit
controls
Language: Английский
A brainstem circuit controls cough-like airway defensive behaviors in mice
Xiaoshan Xu,
No information about this author
Xiupeng Nie,
No information about this author
Weijia Zhang
No information about this author
et al.
Published: Dec. 6, 2024
The
respiratory
tract
is
subject
to
complex
neural
control
for
eupneic
breathing
and
distinct
airway
defensive
reflexes.
Growing
evidence
has
highlighted
significant
heterogeneity
of
airway-innervating
vagal
sensory
neurons
in
mediating
various
functions,
however,
the
central
neuronal
pathways
circuits
involved
regulation
remain
less
understood.
Combining
whole-body
plethysmography
(WBP),
audio,
video
tracking
access
behaviors
conscious
animals,
we
developed
a
quantitative
paradigm
implementing
mouse
as
model
study
cough-like
behaviors.
Using
TRAP2
transgenic
mice
vivo
fiber
photometry,
found
that
activity
caudal
spinal
trigeminal
nucleus
(SP5C)
strongly
correlated
with
tussigen-evoked
responses.
Impairing
synaptic
outputs
or
chemogenetic
inhibition
SP5C
effectively
abolished
these
Optogenetic
stimulation
excitatory
their
projections
ventral
group
(VRG)
triggered
robust
without
tussive
stimuli.
Notably,
tonic
elevation
excitability
caused
spontaneous
activities
chronically
mice.
Together,
our
data
provide
strong
previously
unrecognized
brainstem
circuit
controls
Language: Английский
A brainstem circuit controls cough-like airway defensive behaviors in mice
Xiaoshan Xu,
No information about this author
Xiupeng Nie,
No information about this author
Weijia Zhang
No information about this author
et al.
Published: Dec. 6, 2024
The
respiratory
tract
is
subject
to
complex
neural
control
for
eupneic
breathing
and
distinct
airway
defensive
reflexes.
Growing
evidence
has
highlighted
significant
heterogeneity
of
airway-innervating
vagal
sensory
neurons
in
mediating
various
functions,
however,
the
central
neuronal
pathways
circuits
involved
regulation
remain
less
understood.
Combining
whole-body
plethysmography
(WBP),
audio,
video
tracking
access
behaviors
conscious
animals,
we
developed
a
quantitative
paradigm
implementing
mouse
as
model
study
cough-like
behaviors.
Using
TRAP2
transgenic
mice
vivo
fiber
photometry,
found
that
activity
caudal
spinal
trigeminal
nucleus
(SP5C)
strongly
correlated
with
tussigen-evoked
responses.
Impairing
synaptic
outputs
or
chemogenetic
inhibition
SP5C
effectively
abolished
these
Optogenetic
stimulation
excitatory
their
projections
ventral
group
(VRG)
triggered
robust
without
tussive
stimuli.
Notably,
tonic
elevation
excitability
caused
spontaneous
activities
chronically
mice.
Together,
our
data
provide
strong
previously
unrecognized
brainstem
circuit
controls
Language: Английский