Quantitative analysis of active components in Rhodiola species based on disease module-guided network pharmacology
Jian Zhu,
No information about this author
Ruyi Jin,
No information about this author
Mei Su
No information about this author
et al.
Arabian Journal of Chemistry,
Journal Year:
2023,
Volume and Issue:
17(2), P. 105570 - 105570
Published: Dec. 20, 2023
Many
different
species
of
Rhodiola
are
traditional
botanical
medicines
with
various
effects,
and
their
roots
rhizomes
the
medicinal
parts,
which
have
been
recorded
in
many
ancient
medical
books.
The
2020th
edition
Chinese
Pharmacopoeia
stipulates
crenulata
(Hook.
f.
et
Thoms.)
H.
Ohba
(R.
crenulata)
as
only
species.
However,
wild
resources
R.
gradually
decreasing,
it
is
difficult
to
achieve
artificial
cultivation
nowadays.
It
important
find
several
alternative
crenulata.
In
present
study,
an
integrated
strategy
based
on
chemical
profiling,
disease
module-guided
network
pharmacology,
quantitative
analysis
(CDMQ)
has
developed
estimate
characteristics,
determine
active
components
related
modules,
discover
potential
quality
markers,
identify
a
step-by-step
manner
for
9
Rhodiola.
Firstly,
total
109
compounds
were
identified
accordance
retention
times,
accurate
masses
characteristic
MS/MS
fragment
patterns,
mainly
included
phenylpropanoid
glycosides,
gallic
acid
flavonoids
flavanols,
organic
acids,
others.
Subsequently,
pharmacology
was
performed
targets
compounds.
combination
limit
detection
UPLC-QQQ-MS/MS,
12
components.
enriched
modules
circulatory
system,
mouth,
respiratory
skin
connective
tissue
showed
close
relationship
efficacy
also
revealed
that
salidroside,
rhodiosin,
epicatechin
gallate,
catechin
6'-O-galloylsalidroside
changed
significantly
be
served
markers
Among
species,
kirilowii
(Regel)
Maxim
kirilowii)
sacra
(Prain
ex
Hamet)
S.
Fu
sacra)
could
probably
used
Overall,
this
study
established
solid
foundation
provided
theoretical
guidance
prediction
clinical
application,
control
Language: Английский
Incorporating Network Pharmacology and Experimental Validation to Identify Bioactive Compounds and Potential Mechanisms of Digitalis in Treating Anaplastic Thyroid Cancer
Lei Zhu,
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Ruimin Liang,
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Yawen Guo
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et al.
ACS Omega,
Journal Year:
2024,
Volume and Issue:
9(13), P. 15590 - 15602
Published: March 20, 2024
Anaplastic
thyroid
cancer
(ATC)
is
one
of
the
most
lethal
malignant
tumors
for
which
there
no
effective
treatment.
There
are
an
increasing
number
studies
on
herbal
medicine
treating
tumors,
and
classic
botanical
Digitalis
its
active
ingredients
heart
failure
arrhythmias
have
been
revealed
to
significant
antitumor
efficacy
against
a
wide
range
tumors.
However,
main
components
molecular
mechanisms
anti-ATC
effects
not
extensively
studied.
Here,
we
screened
core
targets
verified
relationship
between
through
network
pharmacology,
docking,
experimental
validation.
These
experiments
showed
that
inhibit
ATC
cell
activity
lead
death
apoptotic
pathway.
Language: Английский
The application of proteomics and phosphoproteomics to reveal the molecular mechanism of salidroside in ameliorating myocardial hypoxia
Zhongwei Xu,
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Kaiyuan Fan,
No information about this author
Heng Li
No information about this author
et al.
Heliyon,
Journal Year:
2024,
Volume and Issue:
10(9), P. e30433 - e30433
Published: April 28, 2024
Highlights•An
in-depth
resource
for
integrated
quantitative
proteomics
and
phosphoproteomics
salidroside
anti-hypoxia
studies.•Salidroside
ameliorates
myocardial
hypoxia
induced
by
cobalt
chloride.•Our
study
systematically
revealed
that
the
had
effects
enhancing
spindle
stability,
maintaining
cells
cycle,
antagonizing
cell
apoptosis.AbstractSalidroside
(SAL),
belonging
to
a
kind
of
main
active
ingredient
Rhodiola
rosea,
is
extensively
utilized
prevention
altitude
sickness
in
plateau
region
China.
However,
research
on
systemic
changes
SAL
at
intracellular
protein
level
still
limited,
especially
phosphorylation
level.
These
limitations
hinder
comprehensive
understanding
regulatory
mechanisms
SAL.
This
aimed
investigate
potential
molecular
mechanism
ameliorating
acute
chloride
using
phosphoproteomics.
We
successfully
identified
165
differentially
expressed
proteins
266
phosphosites
H9c2
following
treatment
under
hypoxic
conditions.
Bioinformatics
analysis
biological
experiment
validation
significantly
antagonized
CoCl2-mediated
cycle
arrest
downregulating
CCND1
expression
upregulating
AURKA,
AURKAB,
CCND3
PLK1
expression.
Additionally,
can
stabilize
cytoskeleton
through
Kinesin
Family
(KIF)
members
Our
ability
protect
against
CoCl2-induced
multiple
pathways,
including
relieving
DNA
damage,
apoptosis.
supplies
comprehension
perspective
alterations
levels
treatment,
thereby
expanded
our
knowledge
anti-hypoxic
Moreover,
this
provides
valuable
further
investigating
Language: Английский
Therapeutic potential of salidroside in preserving rat cochlea organ of corti from gentamicin-induced injury through modulation of NRF2 signaling and GSK3β/NF-κB pathway
Yan Zhang,
No information about this author
Shuyuan Yu,
No information about this author
Xinyi Guo
No information about this author
et al.
PLoS ONE,
Journal Year:
2024,
Volume and Issue:
19(3), P. e0298529 - e0298529
Published: March 14, 2024
Salidroside
(SAL)
is
a
phenol
glycoside
compound
found
in
plants
of
the
Rhodiola
genus
which
has
natural
antioxidant
and
free
radical
scavenging
properties.
SAL
are
able
to
protect
against
manganese-induced
ototoxicity.
However,
molecular
mechanism
by
reduces
levels
reactive
oxygen
species
(ROS)
unclear.
Here,
we
established
an
vitro
gentamicin
(GM)
ototoxicity
model
observe
protective
effect
on
GM-induced
hair
cells
(HC)
damage.
Cochlear
explants
postnatal
day
4
rats
were
obtained
randomly
divided
into
six
groups:
two
groups
(treatment
with
0.2
mM
or
0.4
GM
for
24
h);
400
μmol/L
SAL-pretreated
pretreatment
3
h
followed
treatment
(0.2
mM)
h;
group
control
(normal
cultured
cochlear
explants).
The
effects
HC
damage,
mRNA
protein
enzymes
observed.
loss
occurred
after
treatment.
Pretreatment
significantly
reduced
OHC
loss.
In
tissues,
NRF2
HO-1
enhanced
alone
compared
group.
may
regulating
defense
system
tissues;
can
activate
NRF2/HO-1
signaling,
inhibit
NF-κB
activation,
AKT,
increase
inhibitory
phosphorylation
GSK3β
decrease
GSK3
activity,
all
exert
effects.
Language: Английский