ChemBioChem,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 20, 2024
Profiling
the
substrate
sequence
preferences
of
proteases
is
important
for
understanding
both
biological
functions
as
well
designing
protease
inhibitors.
Several
methods
are
available
profiling
specificity
proteases.
However,
there
currently
no
rapid
and
high-throughput
method
to
profile
noncanonical
substrates.
In
this
study,
we
described
a
strategy
use
DNA-encoded
library
identify
substrates
composed
canonical
amino
acids.
This
approach
uses
peptide
introduces
biotin
molecule
at
N-terminus
immobilize
on
solid
support.
Upon
hydrolysis,
released
DNA
tag
peptides
can
be
sequenced
structures.
Using
approach,
profiled
trypsin
fibroblast
activation
protein
α
discovered
that
were
more
efficiently
cleaved
than
commonly
used
The
identified
FAP
further
design
corresponding
covalent
inhibitors
containing
non-canonical
sequences
with
high
potency
target
protease.
Overall,
our
aid
in
development
new
Nature Communications,
Journal Year:
2024,
Volume and Issue:
15(1)
Published: July 5, 2024
The
Structural
Genomics
Consortium
is
an
international
open
science
research
organization
with
a
focus
on
accelerating
early-stage
drug
discovery,
namely
hit
discovery
and
optimization.
We,
as
many
others,
believe
that
artificial
intelligence
(AI)
poised
to
be
main
accelerator
in
the
field.
question
then
how
best
benefit
from
recent
advances
AI
generate,
format
disseminate
data
enable
future
breakthroughs
AI-guided
discovery.
We
present
here
recommendations
of
working
group
composed
experts
both
public
private
sectors.
Robust
management
requires
precise
ontologies
standardized
vocabulary
while
centralized
database
architecture
across
laboratories
facilitates
integration
into
high-value
datasets.
Lab
automation
opening
electronic
lab
notebooks
mining
push
boundaries
sharing
modeling.
Important
considerations
for
building
robust
machine-learning
models
include
transparent
reproducible
processing,
choosing
most
relevant
representation,
defining
right
training
test
sets,
estimating
prediction
uncertainty.
Beyond
data-sharing,
cloud-based
computing
can
harnessed
build
models.
vectors
acceleration
chemical
probe
will
(1)
real-time
experimental
generation
modeling
workflows
within
design-make-test-analyze
(DMTA)
cycles
openly,
at
scale
(2)
adoption
mindset
where
scientists
experimentalists
work
unified
team,
incorporated
design.
British Journal of Pharmacology,
Journal Year:
2024,
Volume and Issue:
181(9), P. 1345 - 1360
Published: Feb. 29, 2024
Biased
signalling
is
a
natural
result
of
GPCR
allosteric
function
and
should
be
expected
from
any
all
synthetic
agonists.
Therefore,
it
may
encountered
in
agonist
discovery
projects
must
considered
as
beneficial
(or
possible
detrimental)
feature
new
candidate
molecules.
While
bias
detected
easily,
the
synoptic
nature
makes
translation
simple
vitro
to
complex
vivo
systems
problematic.
The
practical
outcome
this
difficulty
predicting
therapeutic
value
biased
due
failure
identified
agonism.
This
discussed
review
well
some
ways
forward
improve
process
better
exploit
powerful
pharmacologic
mechanism.
ChemBioChem,
Journal Year:
2024,
Volume and Issue:
25(10)
Published: March 26, 2024
Abstract
Split
systems,
modular
entities
enabling
controlled
biological
processes,
have
become
instrumental
in
research.
This
review
highlights
their
utility
across
applications
like
gene
regulation,
protein
interaction
identification,
and
biosensor
development.
Covering
significant
progress
over
the
last
decade,
it
revisits
traditional
split
proteins
such
as
GFP,
luciferase,
inteins,
explores
advancements
technologies
Cas
base
editors.
We
also
examine
reassembly
modules
diverse
fields,
from
regulation
to
therapeutic
innovation.
offers
a
comprehensive
perspective
on
recent
evolution
of
systems
ACS Chemical Biology,
Journal Year:
2024,
Volume and Issue:
19(4), P. 802 - 808
Published: March 25, 2024
The
identification
of
novel
covalent
ligands
for
therapeutic
purposes
has
long
depended
on
serendipity,
with
dedicated
hit
finding
techniques
emerging
only
in
the
early
2000s.
Advances
chemoproteomics
have
enabled
robust
characterization
putative
drugs
to
derisk
unique
liabilities
associated
molecules,
leading
a
renewed
interest
this
targeting
modality.
DNA-encoded
library
(DEL)
technology
similarly
emerged
over
past
two
decades
as
highly
efficient
method
identify
new
chemical
equity
toward
protein
targets
interest.
A
number
commercial
and
academic
groups
reported
methods
DEL
synthesis
identification;
however,
it
is
evident
that
there
still
much
be
done
fully
realize
power
ligand
discovery.
This
perspective
will
explore
current
approaches
reflect
next
steps
advance
field.
Journal of the American Chemical Society,
Journal Year:
2024,
Volume and Issue:
146(35), P. 24638 - 24653
Published: Aug. 22, 2024
Identifying
biologically
active
ligands
for
membrane
proteins
is
an
important
task
in
chemical
biology.
We
report
approach
to
directly
identify
small
molecule
agonists
against
by
selecting
DNA-encoded
libraries
(DELs)
on
live
cells.
This
method
connects
extracellular
ligand
binding
with
intracellular
biochemical
transformation,
thereby
biasing
the
selection
toward
agonist
identification.
have
demonstrated
methodology
three
proteins:
epidermal
growth
factor
receptor
(EGFR),
thrombopoietin
(TPOR),
and
insulin
(INSR).
A
∼30
million
a
1.033
billion-compound
DEL
were
selected
these
targets,
novel
subnanomolar
affinity
low
micromolar
cellular
activities
been
discovered.
The
INSR
activated
possibly
allosteric
site,
exhibited
clear
synergistic
effects
insulin,
downstream
signaling
pathways.
Notably,
did
not
activate
insulin-like
1
(IGF-1R),
highly
homologous
whose
activation
may
lead
tumor
progression.
Collectively,
this
work
has
developed
"functional"
selections
cell
surface
provide
widely
applicable
discovery
proteins.
Angewandte Chemie,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 11, 2025
Abstract
Small
molecules
that
can
bind
to
specific
cells
have
broad
application
in
cancer
diagnosis
and
treatment.
Screening
large
chemical
libraries
against
live
is
an
effective
strategy
for
discovering
cell‐targeting
ligands.
The
DNA‐encoded
library
(DEL
or
DECL)
technology
has
emerged
as
a
robust
tool
drug
discovery
been
successfully
utilized
identifying
ligands
biological
targets.
However,
nearly
all
DEL
selections
predefined
targets,
while
target‐agnostic
interrogating
the
entire
cell
surface
remain
underexplored.
Herein,
we
systematically
optimized
cell‐based
selection
method
without
A
104.96‐million‐member
was
selected
MDA‐MB‐231
MCF‐7
breast
cells,
representing
high
low
metastatic
properties,
respectively,
which
led
identification
of
cell‐specific
small
molecules.
We
further
demonstrated
applications
these
photodynamic
therapy
targeted
delivery.
Finally,
leveraging
DNA
tag
compounds,
identified
α‐enolase
(ENO1)
receptor
one
targeting
more
aggressive
cells.
Overall,
this
work
offers
efficient
approach
molecule
by
using
DELs
demonstrates
be
useful
identify
receptors
on
Angewandte Chemie International Edition,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 11, 2025
Abstract
Small
molecules
that
can
bind
to
specific
cells
have
broad
application
in
cancer
diagnosis
and
treatment.
Screening
large
chemical
libraries
against
live
is
an
effective
strategy
for
discovering
cell‐targeting
ligands.
The
DNA‐encoded
library
(DEL
or
DECL)
technology
has
emerged
as
a
robust
tool
drug
discovery
been
successfully
utilized
identifying
ligands
biological
targets.
However,
nearly
all
DEL
selections
predefined
targets,
while
target‐agnostic
interrogating
the
entire
cell
surface
remain
underexplored.
Herein,
we
systematically
optimized
cell‐based
selection
method
without
A
104.96‐million‐member
was
selected
MDA‐MB‐231
MCF‐7
breast
cells,
representing
high
low
metastatic
properties,
respectively,
which
led
identification
of
cell‐specific
small
molecules.
We
further
demonstrated
applications
these
photodynamic
therapy
targeted
delivery.
Finally,
leveraging
DNA
tag
compounds,
identified
α‐enolase
(ENO1)
receptor
one
targeting
more
aggressive
cells.
Overall,
this
work
offers
efficient
approach
molecule
by
using
DELs
demonstrates
be
useful
identify
receptors
on
Royal Society of Chemistry eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 1 - 16
Published: Feb. 21, 2025
DNA-encoded
library
(DEL)
selection
is
typically
an
affinity-based
process
that
encompasses
the
incubation
of
DELs
with
a
target,
separation
compounds
bind
target
from
those
do
not
bind,
amplification
and
sequencing
DNA
barcodes,
decoding
to
reveal
chemical
structures
binders.
DEL
technology
has
had
notable
impact
in
drug
discovery
various
projects
progressing
into
different
stages
development
clinical
trials.
methodology
allows
for
ultra-high
throughput
screening,
permitting
exploration
broad
diversity
rapid
identification
hits
exhibit
desired
effects
specific
targets.
have
been
successfully
employed
small
molecules
targeting
variety
pharmaceutical
targets,
including
proteins
nucleic
acids.
This
approach
expedited
tool
probe
biological
processes
hit
progressed
candidates,
thereby
facilitating
process.
In
this
chapter,
we
provide
overview
affinity
strategies
achievements
selections
on
types.
Royal Society of Chemistry eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 41 - 62
Published: Feb. 21, 2025
Solid-phase
DNA-encoded
library
(DEL)
technology
introduces
advanced
activity-based
screening
capabilities
by
virtue
of
its
“one-bead-one-compound”
(OBOC)
format.
In
this
review,
we
first
describe
the
design
and
construction
so-called
“OBOC-DELs.”
We
then
explore
engineering
a
microfluidic
platform
that
integrates
automates
high-throughput
bead-based
screening,
highlighting
examples
fluorescence-based
functional
assay
development
miniaturization
to
droplets.
Additionally,
detail
statistical
framework
OBOC-DEL
experimental
data
interpretation.
Finally,
summarize
numerous
applications
have
spawned
since
technology’s
inception,
including
biochemical
activity,
dose-response,
cellular
competition
binding
affinity,
pharmacokinetic
properties.
Looking
forward,
there
are
likely
further
opportunities
employ
synthesis
strategies
other
encoded
modalities.