Advances in high‐throughput mass spectrometry in drug discovery
EMBO Molecular Medicine,
Journal Year:
2022,
Volume and Issue:
15(1)
Published: Dec. 14, 2022
Review14
December
2022Open
Access
Advances
in
high-throughput
mass
spectrometry
drug
discovery
Maria
Emilia
Dueñas
Corresponding
Author
[email
protected]
orcid.org/0000-0003-3411-4068
Laboratory
for
Biomedical
Mass
Spectrometry,
Biosciences
Institute,
Newcastle
University,
Newcastle-upon-Tyne,
UK
Contribution:
Conceptualization,
Investigation,
Writing
-
original
draft,
review
&
editing
Search
more
papers
by
this
author
Rachel
E
Peltier-Heap
orcid.org/0000-0002-1665-8216
Discovery
Analytical,
Screening
Profiling
and
Mechanistic
Biology,
GSK
R&D,
Stevenage,
Melanie
Leveridge
Roland
S
Annan
Supervision,
Project
administration,
Frank
H
Büttner
Drug
Sciences,
High
Throughput
Boehringer
Ingelheim
Pharma
GmbH&CoKG,
Biberach,
Germany
Matthias
Trost
orcid.org/0000-0002-5732-700X
Information
*,1,†,
Peltier-Heap2,†,
Leveridge2,
Annan2,
Büttner3
*,1
1Laboratory
2Discovery
3Drug
†
These
authors
contributed
equally
to
work
*Corresponding
author.
Tel:
+44
191
2088983;
E-mail:
2087009;
EMBO
Mol
Med
(2023)15:e14850https://doi.org/10.15252/emmm.202114850
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Abstract
High-throughput
(HT)
screening
discovery,
during
which
thousands
or
millions
compounds
are
screened,
remains
key
methodology
identifying
active
chemical
matter
early
pipelines.
Recent
technological
developments
(MS)
automation
have
revolutionized
application
MS
use
HT
screens.
methods
allow
targeting
unlabelled
biomolecules
assays,
thereby
expanding
breadth
targets
assays
can
be
developed
compared
traditional
approaches.
Moreover,
these
label-free
often
cheaper,
faster,
physiologically
relevant
than
competing
assay
technologies.
In
review,
we
will
describe
current
techniques
explain
their
advantages
disadvantages.
We
highlight
power
vitro
its
setting
up
multiplexed
cellular
phenotypic
providing
an
exciting
new
tool
cell
lines,
even
primary
cells.
Finally,
give
outlook
on
how
advances
increase
future
capabilities
discovery.
BLAZE
mode
The
name
RapidFire
hardware
modification
that
improves
speed
system
enabling
cycling
times
2.5
s
per
sample
Chemoproteomics
A
broad
set
identify
characterize
action
a
drug.
This
include
quantitative
MS-based
proteomics
Data-independent
acquisition
recently
global
strategy
first
isolates
precursor
ions
into
pre-defined
isolation
windows,
then
fragmented
analysed
Fragment-based
Method
develop
potent
small-molecule
starting
from
fragments
binding
weakly
Limited
proteolysis
Used
measure
protein
structural
transitions
directly
biological
matrices
proteome-wide
scale
Mechanism
Refers
specific
biochemical
interaction
through
substance
produces
pharmacological
effect
PhAbit
PhotoAffinity
bits.
reversible
ligand
with
photoreactive
warhead
incorporated
facilitate
covalent
Phosphoproteomics
Proteomics
analysis
seeks
determine
overall
level
phosphorylation
identity
proteins,
phosphorylated,
amino
acid
residues,
hold
phosphate
group
Is
proprietary
automated
microfluidic
collection
purification
interfaces
standard
ESI-MS
instruments.
uses
high-speed
robotics
aspirate
fluidic
samples
96-
384-well
plates,
rapidly
removes
non-volatile
components
such
as
salts,
buffers
detergents
online
fractionation
step,
delivers
purified
analytes
spectrometer
Size
exclusion
chromatography
chromatographic
separation
technique
separates
size,
and,
therefore,
relative
molecular
weight
Thermal
proteome
profiling
monitor
melting
profile
proteins
simultaneously
Warhead
reactive
is
strategically
onto
formation
bond
target
biomolecule
Introduction
development
pipeline
interdisciplinary
process
engages
multiple
phases
research
generation
effective
therapies
(Mohs
Greig,
2017).
historical
aspects
been
extensively
reviewed
demonstrate
challenges
throughout
R&D
including
productivity,
attrition,
evolution
technologies
(Moffat
et
al,
2017;
Vincent
2022).
phase
contains
identification
validation
phase,
well
hit
finding,
typically
(HTS)
campaigns
employing
large
compound
libraries
several
hundred
compounds.
At
end
chemistry
performed
optimize
activity
physicochemical
properties
molecule,
both
influence
vivo
behavior
it
relates
potency,
clearance,
safety.
Early
adoption
critical
improving
there
lengthy
cycle
high
failure
rates
projects
prior
pre-clinical
development.
There
is,
focus
across
industry
academia
biologically
diverse
approaches
points,
address
success
pace
research.
powerful,
versatile
applications
spanning
full
spectrum
pipeline.
For
example,
proteomics,
metabolomics
clinical
tissue
important
part
validation,
later
where
gain
insight
compound's
mechanism
(MoA).
During
lead
optimization,
has
decades
played
central
role
determining
structure
pharmacokinetic
also
increasingly
step
limited
proteolysis-coupled
(Schopper
2017)
routinely
specificity
uncover
small
molecule
sites,
thermal
(Franken
2015)
data-independent
systems
phosphoproteomics
(Kitata
2021).
Despite
being
powerful
within
process,
lagged,
due
lack
throughput
associated
automation.
Current
HTS
using
fluorescence
chemiluminescence-based
detection
modalities
although
HT,
susceptible
compound-dependent
artefacts
leading
false
positives
negatives
(Winter
2018).
Here,
presents
itself
attractive
alternative
technology
already
established,
sensitive,
biomolecules.
advantage
potential
build
improve
confirmation
ultimately
accelerate
process.
HTS-MS
demonstrated
removing
detection-based
thus
mitigating
sources
interference
(Adam
2015).
From
orthogonal
hit-finding
approaches,
opportunity
explore
hit-identification
strategies
detecting
protein-target
binders,
modulate
function
reverse
treat
disease
phenotype.
aim
provide
overview
recent
HT-MS
outline
advancements
enabled
platforms
applications.
could
further
drive
Basic
principles
instrumentation
analytical
measures
mass-to-charge
ratio
(m/z)
abundance
generate
turn
yield
chemically
information
empirical
about
particular
analyte.
simplest
form,
consists
ionization
source
coupled
analyzer
detector.
ion
transfers
molecules
gas
charged
transferred
analyzer.
separated
based
m/z
detected,
generating
spectrum.
As
not
only
but
number
detected
recorded,
highly
linear
range
~105
(Collings
2014).
HT-MS-based
readouts
largely
dominated
instruments
comprising
solid-phase
extraction
(SPE)
electrospray
(ESI),
surface-based
matrix-assisted
laser/desorption
(MALDI).
Self-assembled
monolayers
(SAMs)
desorption/ionization
(SAMDI),
some
acoustic
mist
(AMI),
droplet
ejection
(ADE)
open
port
interface
(OPI)
added
toolbox.
described
Fig
1
(surface-based,
1A
electrospray-based
1B).
Each
combined
different
analyzers
access
levels
resolution,
dynamic
ranges,
time,
throughput.
detailed
please
see
Challen
Cramer
(2022).
Figure
1.
Schematic
employed
HTS-MS(A)
Surface-based:
MALDI.
Samples
co-crystallized
matrix
conductive
plate.
Laser
shots
activate
evaporate
analyte
matrix.
cloud,
protons
ionize
(Karas
1985).
SAMDI.
Components
enzymatic
reaction
(either
enzymes
substrates)
immobilized
self-assembled
array
format,
upon
irradiation
laser,
desorbed
surface
cleavage
thiolate-gold
ionized
(Gurard-Levin
2011).
(B)
Electrospray-based:
ESI.
dissolved
liquid
carrier
voltage
applied
tip
metal
capillary
spectrometer's
sampling
cone.
electric
field
causes
dispersion
solution
resulting
nebulization.
Charged
droplets
containing
generated
at
exit
tip.
solvent
vaporized
drying
heat
guided
gradient
toward
region
(Fenn
1989;
El-Aneed
2009).
AMI.
An
transducer
charging
cone
nanolitre-sized
transfer
line
(Sinclair
ADE-OPI.
pulse
energy
ejects
upward
inverted
OPI,
fluid
pump
capture
region.
captured,
diluted,
conventional
ESI
(Zhang
Download
figure
PowerPoint
Biochemical
functional
inhibitors
Once
identified
disease,
function.
enzymes,
inhibition
activation
measured
via
product,
decrease
substrate,
(Fig
2A).
Unlike
most
allows
direct,
measurement
substrate
product
long
shift
occurs;
enzyme
principally
amenable
spectrometric
analysis.
years,
mobility
integrated
capable
spectrometers,
complex
isobaric
lipid
classes
(Djambazova
2020).
likely
broaden
HTS-compatible
challenging
isomerases,
years.
2.
Types
assays(A)
Enzyme
spectrometry.
reactions
substrates
stopped
appropriate
time
points
mixture
conversion.
Addition
affect
reduced
Affinity
Selection
Spectrometry.
Compounds
bind
interest
non-binding
removed
size-exclusion
chromatography.
Binding
(C)
Cellular
phenotypes
"healthy"
"diseased"
controls
defined
read-out
"fingerprint"
Chemical
phenotype
considered
hits.
ESI,
BLAZE-mode
(Bretschneider
2019)
ADE-OPI
approach
enzymatic-type
(Häbe
2020;
Simon
2021a).
versatility
instrument
setup
many
lipids
(Highkin
2011;
Dittakavi
2020),
peptides
(Hutchinson
Liddle
metabolites
(Soulard
2008;
Maxine
2009),
wide
blood,
plasma
Bretschneider
lysates
(Gordon
2016;
Ambient
ionization,
desorption
(DESI),
commonly
does
require
preparation,
DESI-MS
displays
remarkably
salt
tolerance,
making
ideal
without
any
preparation.
Using
DESI,
outside
under
native
conditions.
Due
ability
scan
surface,
(Wleklinski
2018),
approaching
10,000
hour,
bioassay
(Morato
improvements
preparation
MALDI-
time-of-flight
(TOF)
rival
throughputs
10–20
second
MALDI
(Haslam
atmospheric
pressure
(Krenkel
2022)
reported.
studies
(1,536
spots
less
8
min)
new-generation
MALDI-TOF
spectrometers
was
compatible
study
drugability
deubiquitylases
(DUBs;
Ritorto
work,
individual
DUBs
were
incubated
ubiquitin
dimers
linkage
type
quantitation
mono-ubiquitin
isotopically
labelled
internal
determination
DUB
specificity,
screening.
unique
substrates,
rather
previously
rhodamine
fluorescently
reagents
(Hassiepen
2007),
had
expanded
platform.
post-translational
modifications
grown
past
decade
potentially
involves
change.
importantly
quantitation,
gold
respect
simplicity
cost.
Successful
now
kinases
(Beeman
Heap
2017),
methyltransferases
(Guitot
phosphatases
Most
MALDI-TOF-based
conducted
so
far
focused
simple
(with
just
single
product)
peptide/protein-centric
(Ritorto
2014;
Guitot
De
Cesare
2018;
Winter
Applying
metabolomics-based
challenge
mostly
(i)
peaks
low-mass
range,
(ii)
matrix-dependent
selectivity,
(iii)
metabolite
coverage
low
sensitivity
certain
metabolites.
Although,
recently,
trimethylamine
2019),
acetylcholine
(Chandler
2016),
3-methoxytyramine
2022),
cyclic
GMP-AMP
(at
~60,000
day;
2020)
campaigns,
tools
need
meet
opportunities
metabolic
SAMDI
promising
same
targeted
products
Although
generally
label-free,
needs
tag
immobilized,
enables
suited
measuring
activities
SAMs
customized
variety
immobilization
chemistries
(Mrksich,
2008).
exemption
statement
traceless-SAMDI
(Helal
introduced
truly
analysing
photogenerated
carbene
non-selectively
attach
SAMs,
analyzed
MS.
recombinant
enzyme/substrate
screen
classes,
(Swalm
Brooke
2013),
glycosyltransferases
(Ban
2012),
deacetylases
2010).
Selected
publications
describing
found
Table
MS-compatible
Substrate
Product
Platform
Citation
Phosphatidylserine
decarboxylase
Phosphatidylethanolamine
Forbes
al
(2007)
ERAP1
Peptide
(2020)
Acetyl-coenzyme
carboxylase
Sphingosine
whole
blood
Sphingosine-1-phosphate
(2009)
Autotaxin
Lysophosphatidyl
choline
Lysophosphatidic
Soulard
(2008)
Histone
lysine
demethylase
Trimethylated
peptide
Demethylated
Hutchinson
(2011)
deacetylase
Acetylated
AMI-MS
Sinclair
(2019)
acetyltransferase
acetyl-CoA
cofactor
Belov
Diacylglycerol
acyltransferase
2
Diolein
oleoyl-CoA
triolein
Wen
(2021)
Cyclic
synthase
GTP
+
ATP
Deubiquitylases
Diubiquitin
Ubiquitin
(2014)
E3-ligases
(2018)
Kinases
Phosphopeptide
Beeman
(2017)
Methyltransferases
Methylated
(2017),
Haslam
(2015)
Phosphatases
Acetylcholinesterase
Acetylcholine
Choline
Anthrax
lethal
factor
Min
(2004)
Sirtuin
3
Patel
Swalm
(2013)
Glycosyltransferases
Saccharides
Oligosaccharides
Ban
(2012)
Deacetylases
Gurard-Levin
(2010)
Isocitrate
dehydrogenase
α-ketoglutarate
Radosevich
(2022)
Catechol-O-methyltransferase
Dopamine
selection
(ASMS)
cost-effective
rapid
against
(Prudent
ASMS
2B),
biomolecular
present
molar
excess
ligands
captured
protein.
Non-bound
usually
either
affinity
enrichment
size
(SEC).
Bound
dissociated
accurate
suitable
technique.
Alternatively,
ligand-binding
properties,
proof
performing
competition
experiments
(Simon
2021b).
emerged
over
two
complimentary
(Annis
2007).
leverages
direct
capability
SEC.
particular,
widely
adopted
scalability
led
fully
systems,
Automated
Ligand
Identification
System
2004),
SpeedScreen
(Muckenschnabel
2004;
Zehender
Mayr,
Typically,
million
pooling
take
5–7
days
follow-up
ranging
1–3
weeks
re-confirm
depending
employed.
rationale
behind
must
precede
activity,
binders
surrogate
reading
out
stages
ID
campaign.
Advantageously,
exhibit
MoA,
agonists
antagonists
screen.
accommodate
very
little
knowledge
exists.
By
designing
collections
encoded
libraries,
broader
space
possible
reduce
downstream
deconvolution
redundancies.
instrumental
screens
one
achieved
in-solution
platforms.
like
beta-secretase
(Coburn
G-protein
receptors
(Whitehurst
Annis,
2008),
RNA
polymerase
(Walker
CHK1
(Comess
2006)
probe
druggable
NF-kβ
pathway
(Kutilek
2016).
historically
pools
100–2,000
high-resolution
approach,
suffer
few
challenges.
concentrations
micromolar
needed
good
solubility
12–24
h
critical,
problematic
membrane
proteins.
Furthermore,
DMSO
concentration,
sensitivity,
denature
structure.
More
faster
scanning
speeds
smaller
ASMS.
includes
SEC
platform
proposed
(2021b),
SAMDI-TOF
tens
hundreds,
yet
still
reach
Covalent
fragment
(FBDD)
aims
novel
drugs
small,
points.
Sensitive
technologies,
plasmon
resonance,
nuclear
magnetic
MS,
detect
fragments.
excellent
example
vemurafenib,
selective
inhibitor
oncogenic
B-RAF
(Tsai
Advantages
FBDD
experimental
costs,
developing
harness
chemistry.
One
aspect
strategies.
exploits
made
synthesis
warheads
efforts
(Lu
poorly
cha
Language: Английский
Comparison of Quantitative Mass Spectrometric Methods for Drug Target Identification by Thermal Proteome Profiling
Journal of Proteome Research,
Journal Year:
2023,
Volume and Issue:
22(8), P. 2629 - 2640
Published: July 13, 2023
Thermal
proteome
profiling
(TPP)
provides
a
powerful
approach
to
studying
proteome-wide
interactions
of
small
therapeutic
molecules
and
their
target
off-target
proteins,
complementing
phenotypic-based
drug
screens.
Detecting
differences
in
thermal
stability
due
engagement
requires
high
quantitative
accuracy
consistent
detection.
Isobaric
tandem
mass
tags
(TMTs)
are
used
multiplex
samples
increase
quantification
precision
TPP
analysis
by
data-dependent
acquisition
(DDA).
However,
advances
data-independent
(DIA)
can
provide
higher
sensitivity
protein
coverage
with
reduced
costs
sample
preparation
steps.
Herein,
we
explored
the
performance
different
DIA-based
label-free
approaches
compared
TMT-DDA
for
shift
quantitation.
Acute
myeloid
leukemia
cells
were
treated
losmapimod,
known
inhibitor
MAPK14
(p38α).
Label-free
DIA
approaches,
particularly
library-free
mode
DIA-NN,
comparable
ability
detect
losmapimod
one
its
downstream
targets,
MAPKAPK3.
Using
quantitation
is
cost-effective
alternative
labeled
pipeline.
Language: Английский
Rapid Profiling of the Glycosylation Effects on the Binding of SARS-CoV-2 Spike Protein to Angiotensin-Converting Enzyme 2 Using MALDI-MS with High Mass Detection
Yuye Zhou,
No information about this author
Congrui Tan,
No information about this author
Renato Zenobi
No information about this author
et al.
Analytical Chemistry,
Journal Year:
2024,
Volume and Issue:
96(5), P. 1898 - 1905
Published: Jan. 27, 2024
The
spike
protein
receptor-binding
domain
(RBD)
of
SARS-CoV-2
binds
directly
to
angiotensin-converting
enzyme
2
(ACE2),
mediating
the
host
cell
entry
SARS-CoV-2.
Both
and
ACE2
are
highly
glycosylated,
which
can
regulate
binding.
Here,
we
utilized
high-mass
MALDI-MS
with
chemical
cross-linking
for
profiling
glycosylation
effects
on
binding
between
RBD
ACE2.
Overall,
it
was
found
that
affects
more
strongly
than
does
glycosylation.
affinity
improved
after
desialylation
or
partial
deglycosylation
(N690)
ACE2,
while
decreased
degalactosylation.
form
dimers
in
solution,
bind
tightly
monomers.
dimerization
dimeric
also
be
by
Partial
increased
a
factor
2,
suggesting
its
high
potential
neutralizing
method
described
work
provided
simple
way
analyze
protein–protein
interaction
without
sample
purification.
It
widely
used
rapid
glycosylation-related
diseases
study
multiple
interactions
aggregates
single
system.
Language: Английский
Proteomic Analysis Reveals Trilaciclib-Induced Senescence
Marina Hermosilla-Trespaderne,
No information about this author
Mark Xinchen Hu-Yang,
No information about this author
Abeer Dannoura
No information about this author
et al.
Molecular & Cellular Proteomics,
Journal Year:
2024,
Volume and Issue:
23(6), P. 100778 - 100778
Published: April 26, 2024
Trilaciclib,
a
CDK4/6
inhibitor,
was
approved
as
myeloprotective
agent
for
protecting
bone
marrow
from
chemotherapy-induced
damage
in
extensive-stage
small
cell
lung
cancer
(ES-SCLC).
This
is
achieved
through
the
induction
of
temporary
halt
cycle
cells.
While
it
has
been
studied
various
types,
its
potential
haematological
cancers
remains
unexplored.
research
aimed
to
investigate
efficacy
trilaciclib
cancers.
Utilizing
mass
spectrometry-based
proteomics,
we
examined
alterations
induced
by
chronic
myeloid
leukaemia
(CML)
line,
K562.
Interestingly,
promoted
senescence
these
cells
rather
than
death,
observed
acute
(AML),
lymphoblastic
(ALL),
and
myeloma
In
K562
cells,
hindered
progression
proliferation
stabilising
downregulating
cycle-related
proteins,
along
with
concomitant
activation
autophagy
pathways.
Additionally,
trilaciclib-induced
also
non-small
carcinoma
line
(NSCLC),
A549.
These
findings
highlight
trilaciclib's
therapeutic
option
underscore
need
carefully
balance
modulation
CML
treatment,
well
NSCLC.
Language: Английский
Proteomic Analysis Reveals Trilaciclib-Induced Senescence
Marina Hermosilla-Trespaderne,
No information about this author
Mark Xinchen Hu-Yang,
No information about this author
Abeer Dannoura
No information about this author
et al.
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: March 14, 2024
ABSTRACT
Trilaciclib,
a
CDK4/6
inhibitor,
was
approved
as
myeloprotective
agent
for
protecting
bone
marrow
from
chemotherapy-induced
damage
in
extensive-stage
small
cell
lung
cancer
(ES-SCLC).
This
is
achieved
through
the
induction
of
temporary
halt
cycle
cells.
While
it
has
been
studied
various
types,
its
potential
haematological
cancers
remains
unexplored.
research
aimed
to
investigate
efficacy
trilaciclib
cancers.
Utilizing
mass
spectrometry-based
proteomics,
we
examined
alterations
induced
by
chronic
myeloid
leukaemia
(CML)
line,
K562.
Interestingly,
promoted
senescence
these
cells
rather
than
death,
observed
acute
(AML),
lymphoblastic
(ALL),
and
myeloma
In
K562
cells,
hindered
progression
proliferation
stabilising
downregulating
cycle-related
proteins,
along
with
concomitant
activation
autophagy
pathways.
Additionally,
trilaciclib-induced
also
non-small
carcinoma
line
(NSCLC),
A549.
These
findings
highlight
trilaciclib’s
therapeutic
option
underscore
need
carefully
balance
modulation
CML
treatment,
well
NSCLC.
GRAPHIC
Language: Английский
NUDCD3 deficiency disrupts V(D)J recombination to cause SCID and Omenn syndrome
Science Immunology,
Journal Year:
2024,
Volume and Issue:
9(95)
Published: May 24, 2024
Inborn
errors
of
T
cell
development
present
a
pediatric
emergency
in
which
timely
curative
therapy
is
informed
by
molecular
diagnosis.
In
11
affected
patients
across
four
consanguineous
kindreds,
we
detected
homozygosity
for
single
deleterious
missense
variant
the
gene
NudC
domain–containing
3
(
NUDCD3
)
.
Two
infants
had
severe
combined
immunodeficiency
with
complete
absence
and
B
cells
(T
-
SCID),
whereas
nine
showed
classical
features
Omenn
syndrome
(OS).
Restricted
antigen
receptor
usage
residual
lymphocytes
suggested
impaired
V(D)J
recombination.
Patient
reduced
expression
protein
diminished
ability
to
support
RAG-mediated
recombination
vitro,
was
associated
pathologic
sequestration
RAG1
nucleoli.
Although
mouse
model
bearing
homologous
led
milder
immunologic
abnormalities,
absolutely
required
healthy
humans.
Language: Английский
A Comparison of Quantitative Mass Spectrometric Methods for Drug Target Identification by Thermal Proteome Profiling
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2023,
Volume and Issue:
unknown
Published: Feb. 15, 2023
Abstract
Thermal
proteome
profiling
(TPP)
provides
a
powerful
approach
to
studying
proteome-wide
interactions
of
small
therapeutic
molecules
and
their
target
off-target
proteins,
complementing
phenotypic-based
drug
screens.
Detecting
differences
in
thermal
stability
due
engagement
requires
high
quantitative
accuracy
consistent
detection.
Isobaric
tandem
mass
tags
(TMT)
are
used
multiplex
samples
increase
quantification
precision
TPP
analysis
by
data-dependent
acquisition
(DDA).
However,
advances
data-independent
(DIA)
can
provide
higher
sensitivity
protein
coverage
with
reduced
costs
sample
preparation
steps.
Herein,
we
explored
the
performance
different
DIA-based
label-free
(LFQ)
approaches
compared
TMT-DDA
for
shift
quantitation.
Acute
myeloid
leukaemia
(AML)
cells
were
treated
losmapimod,
known
inhibitor
MAPK14
(p38α).
Label-free
DIA
approaches,
particularly
library-free
mode
DIA-NN,
comparable
or
better
than
ability
reproducibly
detect
losmapimod
one
its
downstream
targets,
MAPKAPK3.
Using
quantitation
is
cost-effective
alternative
labelled
pipeline.
Language: Английский
A Concise Review on Analytical Methods for Determination of Nilotinib
Ritika Prashant Khivansara,
No information about this author
Sandhya Jadhav,
No information about this author
Maheshkumar R. Borkar
No information about this author
et al.
Current Analytical Chemistry,
Journal Year:
2023,
Volume and Issue:
19(7), P. 513 - 530
Published: Aug. 1, 2023
Abstract:
Nilotinib
hydrochloride
is
a
tyrosine
kinase
inhibitor
licensed
to
treat
chronic
myelogenous
leukemia
in
patients
with
the
Philadelphia
Chromosome
(Ph+).
Researchers
at
Novartis
Pharmaceuticals
discovered
novel
inhibitors
that
are
effective
against
imatinib-resistant
BCR-ABL
mutations.
As
consequence,
was
discovered.
Several
analytical
approaches
were
employed
address
quantitative
as
well
qualitative
assessment
of
from
diverse
biological
and
pharmaceutical
matrices
during
development
Nilotinib.
The
literature
search
conducted
by
evaluating
publications
reporting
on
nilotinib
methodologies
2006
2022.
This
review
briefly
summarizes
drug
profile,
viz.
stereochemistry,
mechanism
action,
resistance,
pharmacokinetics,
pharmacodynamics,
side
effects,
several
techniques
used
assess
dosage
form,
bulk,
fluids.
determination
using
methods
important
for
therapeutic
monitoring,
optimizing
dosage,
ensuring
safety
efficacy,
conducting
comparative
studies.
A
variety
gathered
examined,
including
spectroscopy,
electrophoresis,
voltammetry,
Raman
differential
scanning
calorimetry,
X-ray
diffraction,
chromatography,
hybrid
techniques.
They
also
useful
studying
pharmacokinetics
drug.
These
play
crucial
role
personalized
treatment
myeloid
other
conditions
where
used.
Language: Английский