Critical Review on Anti-Obesity Effects of Anthocyanins Through PI3K/Akt Signaling Pathways
Nutrients,
Journal Year:
2025,
Volume and Issue:
17(7), P. 1126 - 1126
Published: March 24, 2025
Obesity
is
a
global
health
crisis
and
one
of
the
major
reasons
for
rising
prevalence
metabolic
disorders
such
as
type
2
diabetes,
cardiovascular
diseases,
certain
cancers.
There
has
been
growing
interest
in
search
natural
molecules
with
potential
anti-obesity
effects;
among
phytochemicals
are
anthocyanins,
which
flavonoid
pigments
present
many
fruits
vegetables.
Anthocyanins
influence
obesity
via
several
signaling
pathways.
The
PI3K/Akt
pathway
plays
role
focus
on
downstream
targets
GLUT4,
FOXO,
GSK3β,
mTOR,
play
central
regulation
glucose
metabolism,
lipid
storage,
adipogenesis.
critical
factors
oxidative
stress
inflammation
also
affect
pathophysiology
obesity.
However,
studies
reviewed
have
limitations,
including
variations
experimental
models,
bioavailability
challenges,
lack
extensive
clinical
validation.
While
anthocyanin
shows
tremendous
potential,
challenges
poor
bioavailability,
stability,
regulatory
matters
must
be
overcome
successful
functional
food
inclusion
anthocyanins.
future
anthocyanin-derived
foods
lies
their
ability
to
hurdles.
Therefore,
this
review
highlights
molecular
mechanisms
through
pathways
explores
how
anthocyanins
can
modulate
these
address
related
disorders.
It
addresses
some
ways
solve
like
while
emphasizing
possibilities
anthocyanin-based
management.
Language: Английский
Preliminary Evidence Suggests That a 12-Week Treatment with Tirzepatide Plus Low-Energy Ketogenic Therapy Is More Effective than Its Combination with a Low-Calorie Diet in Preserving Fat-Free Mass, Muscle Strength, and Resting Metabolic Rate in Patients with Obesity
Luigi Schiavo,
No information about this author
Biagio Santella,
No information about this author
Monica Mingo
No information about this author
et al.
Nutrients,
Journal Year:
2025,
Volume and Issue:
17(7), P. 1216 - 1216
Published: March 30, 2025
Background:
Tirzepatide
(TZP),
a
unimolecular
dual
agonist
targeting
glucose-dependent
insulinotropic
polypeptide
and
glucagon-like
peptide-1
receptors,
is
promising
weight
loss
agent
in
obesity.
The
preservation
of
metabolically
active
fat-free
mass
(FFM),
muscle
strength
(MS),
resting
metabolic
rate
(RMR)
essential
for
optimizing
fat
(FM)
reduction.
Although
TZP
typically
combined
with
low-calorie
diet
(LCD),
its
impact
on
FFM
uncertain,
studies
MS
RMR
are
lacking.
Evidence
suggests
that
Low-Energy
Ketogenic
Therapy
(LEKT)
may
reduce
FM
while
preserving
FFM,
MS,
RMR.
Therefore,
this
study
aimed
to
compare
the
effects
an
LEKT
LCD,
both
TZP,
body
(BW),
FM,
patients
Methods:
We
prospectively
compared
either
LCD
or
60
obesity
(n
=
30
per
group)
over
12
weeks.
BW,
were
measured
at
baseline
after
Clinical
parameters,
assessment
dietary
compliance,
side
also
evaluated.
Results:
At
12-week
follow-up,
groups
showed
significant
BW
reduction
from
(TZP+LEKT,
p
0.0289;
TZP+LCD,
0.0278),
no
intergroup
difference
(p
0.665).
Similarly,
decreased
significantly
cohorts
<
0.001;
0.0185),
TZP+LEKT
group
achieving
greater
0.042).
However,
TZP+LCD
exhibited
declines
0.0284),
0.0341),
0.001),
whereas
we
did
not
observe
any
changes
0.487),
0.691),
0.263)
group.
Intergroup
direct
comparisons
confirmed
experienced
reductions
0.0388),
0.046),
0.019).
Conclusions:
Based
findings
these
preliminary
data,
able
support
hypothesis
seems
be
superior
promoting
Language: Английский
Exploring Stressors: Impact on Cellular Organelles and Implications for Cellular Functions
Stresses,
Journal Year:
2025,
Volume and Issue:
5(2), P. 26 - 26
Published: April 4, 2025
Cellular
stressors
have
been
demonstrated
to
exert
a
substantial
influence
on
the
functionality
of
organelles,
thereby
impacting
cellular
homeostasis
and
contributing
development
disease
pathogenesis.
This
review
aims
examine
impact
diverse
stressors,
including
environmental,
chemical,
biological,
physical
factors,
critical
organelles
such
as
cell
membrane,
mitochondria,
endoplasmic
reticulum,
Golgi
apparatus,
lysosomes,
membrane-less
organelles.
The
intricate
molecular
mechanisms
underlying
stress
responses,
encompassing
oxidative
stress,
protein
misfolding,
metabolic
reprogramming,
capacity
elicit
adaptive
responses
or
culminate
in
pathological
conditions.
interplay
between
these
organelle
dysfunction
has
implicated
myriad
diseases,
neurodegenerative
disorders,
cancer,
immune-related
pathologies.
A
comprehensive
understanding
by
which
respond
can
offer
valuable
insights
into
therapeutic
strategies
aimed
at
mitigating
damage.
Language: Английский