Chemistry - An Asian Journal,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 22, 2025
Abstract
Traditionally,
the
discovery
of
ligands
for
organic
reactions
has
relied
heavily
on
intuition
and
experience
chemists,
leading
to
a
trial‐and‐error
process
that
is
both
time‐consuming
inherently
biased.
The
rise
data
science
now
offers
more
systematic
efficient
approach
exploring
chemical
spaces,
moving
beyond
heuristic
constraints
conventional
ligand
design
enabling
data‐driven,
predictive
method.
In
this
study,
we
introduce
“SadPhos
Library”,
comprehensive
collection
890
reported
chiral
sulfinamide
phosphine
ligands,
use
physical
descriptors
systematically
map
their
space.
By
examining
small
dataset
known
active
demonstrate
how
SadPhos
library
can
help
identify
key
properties
associated
with
performance
thus
streamline
optimization.
Furthermore,
employing
dimensionality
reduction
clustering
techniques,
pinpoint
representative
subset
facilitates
targeted
exploration
diverse
landscape.
Chemical Science,
Journal Year:
2023,
Volume and Issue:
14(46), P. 13384 - 13391
Published: Jan. 1, 2023
Sulfinamides
are
some
of
the
most
centrally
important
four-valent
sulfur
compounds
that
serve
as
critical
entry
points
to
an
array
emergent
medicinal
functional
groups,
molecular
tools
for
bioconjugation,
and
synthetic
intermediates
including
sulfoximines,
sulfonimidamides,
sulfonimidoyl
halides,
well
a
wide
range
other
S(iv)
S(vi)
functionalities.
Yet,
accessible
chemical
space
sulfinamides
remains
limited,
approaches
largely
confined
two-electron
nucleophilic
substitution
reactions.
We
report
herein
direct
radical-mediated
decarboxylative
sulfinamidation
first
time
enables
access
from
broad
structurally
diverse
carboxylic
acids.
Our
studies
show
formation
prevails
despite
inherent
thermodynamic
preference
radical
addition
nitrogen
atom,
while
machine
learning-derived
model
facilitates
prediction
reaction
efficiency
based
on
computationally
generated
descriptors
underlying
reactivity.
Computational and Structural Biotechnology Journal,
Journal Year:
2024,
Volume and Issue:
25, P. 20 - 33
Published: Feb. 17, 2024
The
synthesis
of
silver
nanoparticles
with
controlled
physicochemical
properties
is
essential
for
governing
their
intended
functionalities
and
safety
profiles.
However,
process
involves
multiple
parameters
that
could
influence
the
resulting
properties.
This
challenge
be
addressed
development
predictive
models
forecast
endpoints
based
on
key
parameters.
In
this
study,
we
manually
extracted
synthesis-related
data
from
literature
leveraged
various
machine
learning
algorithms.
Data
extraction
included
such
as
reactant
concentrations,
experimental
conditions,
well
antibacterial
efficiencies
toxicological
profiles
synthesized
were
also
extracted.
a
second
step,
completeness,
employed
regression
algorithms
to
establish
relationships
between
desired
build
models.
core
size
efficiency
trained
validated
using
cross-validation
approach.
Finally,
features'
impact
was
evaluated
via
Shapley
values
provide
insights
into
contribution
features
predictions.
Factors
duration,
scale
choice
capping
agents
emerged
most
significant
predictors.
study
demonstrated
potential
aid
in
rational
design
paves
way
safe-by-design
principles
by
providing
optimization
achieve
provides
valuable
dataset
compiled
sources
time
effort
researchers.
Access
datasets
notably
aids
computational
advances
field
nanotechnology.
Journal of Chemical Information and Modeling,
Journal Year:
2024,
Volume and Issue:
64(8), P. 3021 - 3033
Published: April 11, 2024
Synthesis
planning
of
new
pharmaceutical
compounds
is
a
well-known
bottleneck
in
modern
drug
design.
Template-free
methods,
such
as
transformers,
have
recently
been
proposed
an
alternative
to
template-based
methods
for
single-step
retrosynthetic
predictions.
Here,
we
trained
and
evaluated
transformer
model,
called
the
Chemformer,
retrosynthesis
predictions
within
discovery.
The
proprietary
data
set
used
training
comprised
∼18
M
reactions
from
literature,
patents,
electronic
lab
notebooks.
Chemformer
was
purpose
both
multistep
retrosynthesis.
We
found
that
performance
especially
good
on
reaction
classes
common
discovery,
with
most
showing
top-10
round-trip
accuracy
above
0.97.
Moreover,
reached
higher
compared
model.
By
analyzing
experiments,
observed
synthetic
routes,
leading
commercial
starting
materials
95%
target
compounds,
increase
more
than
20%
model
compound
set.
In
addition
this,
discovered
suggested
novel
disconnections
corresponding
templates,
which
are
not
included
These
findings
were
further
supported
by
publicly
available
ChEMBL
conclusions
drawn
this
work
allow
design
synthesis
tool
where
template-free
models
harmony
optimize
recommendations.
Artificial Intelligence Chemistry,
Journal Year:
2024,
Volume and Issue:
2(2), P. 100075 - 100075
Published: July 27, 2024
The
beginning
and
ripening
of
digital
chemistry
is
analyzed
focusing
on
the
role
artificial
intelligence
(AI)
in
an
expected
leap
chemical
sciences
to
bring
this
area
next
evolutionary
level.
analytic
description
selects
highlights
top
20
AI-based
technologies
7
broader
themes
that
are
reshaping
field.
It
underscores
integration
tools
such
as
machine
learning,
big
data,
twins,
Internet
Things
(IoT),
robotic
platforms,
smart
control
processes,
virtual
reality
blockchain,
among
many
others,
enhancing
research
methods,
educational
approaches,
industrial
practices
chemistry.
significance
study
lies
its
focused
overview
how
these
innovations
foster
a
more
efficient,
sustainable,
innovative
future
sciences.
This
article
not
only
illustrates
transformative
impact
but
also
draws
new
pathways
chemistry,
offering
broad
appeal
researchers,
educators,
industry
professionals
embrace
advancements
for
addressing
contemporary
challenges
ABSTRACT
Beyond
addressing
technological
demands,
the
integration
of
machine
learning
(ML)
into
human
societies
has
also
promoted
sustainability
through
adoption
digitalized
protocols.
Despite
these
advantages
and
abundance
available
toolkits,
a
substantial
implementation
gap
is
preventing
widespread
incorporation
ML
protocols
computational
experimental
chemistry
communities.
In
this
work,
we
introduce
ROBERT,
software
carefully
crafted
to
make
more
accessible
chemists
all
programming
skill
levels,
while
achieving
results
comparable
those
field
experts.
We
conducted
benchmarking
using
six
recent
studies
in
containing
from
18
4149
entries.
Furthermore,
demonstrated
program's
ability
initiate
workflows
directly
SMILES
strings,
which
simplifies
generation
predictors
for
common
problems.
To
assess
ROBERT's
practicality
real‐life
scenarios,
employed
it
discover
new
luminescent
Pd
complexes
with
modest
dataset
23
points,
frequently
encountered
scenario
studies.
Engineering,
Journal Year:
2024,
Volume and Issue:
39, P. 25 - 44
Published: Jan. 5, 2024
Heterogeneous
catalysis
remains
at
the
core
of
various
bulk
chemical
manufacturing
and
energy
conversion
processes,
its
revolution
necessitates
hunt
for
new
materials
with
ideal
catalytic
activities
economic
feasibility.
Computational
high-throughput
screening
presents
a
viable
solution
to
this
challenge,
as
machine
learning
(ML)
has
demonstrated
great
potential
in
accelerating
such
processes
by
providing
satisfactory
estimations
surface
reactivity
relatively
low-cost
information.
This
review
focuses
on
recent
progress
applying
ML
adsorption
prediction,
which
predominantly
quantifies
solid
catalyst.
models
that
leverage
inputs
from
different
categories
exhibit
levels
complexity
are
classified
discussed.
At
end
review,
an
outlook
current
challenges
future
opportunities
ML-assisted
catalyst
is
supplied.
We
believe
summarizes
major
achievements
discovery
through
can
inspire
researchers
further
devise
novel
strategies
accelerate
design
and,
ultimately,
reshape
industry
landscape.
Journal of Chemical Information and Modeling,
Journal Year:
2025,
Volume and Issue:
65(1), P. 312 - 325
Published: Jan. 2, 2025
Despite
remarkable
advancements
in
the
organic
synthesis
field
facilitated
by
use
of
machine
learning
(ML)
techniques,
prediction
reaction
outcomes,
including
yield
estimation,
catalyst
optimization,
and
mechanism
identification,
continues
to
pose
a
significant
challenge.
This
challenge
arises
primarily
from
lack
appropriate
descriptors
capable
retaining
crucial
molecular
information
for
accurate
while
also
ensuring
computational
efficiency.
study
presents
successful
application
ML
predicting
performance
Ir-catalyzed
allylic
substitution
reactions.
We
introduce
SubA,
an
innovative
substrate-aware
descriptor
that
is
inspired
fact
specific
atoms
or
motifs
reactants
drive
outcomes.
By
employing
graph
matching
algorithms
backbone
identification
incorporating
atomic
properties
derived
density
functional
theory
calculations,
SubA
extracts
essential
at
both
level
level.
Compared
four
mainstream
descriptors,
achieves
reduced
dimensionality
enhanced
accuracy
with
over
2%
mean
absolute
error
reduction
random
scaffold
splitting
evaluations.
It
demonstrates
better
generalization
when
confronted
previously
unreported
substrate
combinations
extended
experiments.
Furthermore,
interpretable
analysis
shows
predictor
focuses
on
key
features,
offering
insights
into
mechanisms.
Chemical Science,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
This
review
provides
an
overview
of
predictive
tools
in
asymmetric
synthesis.
The
evolution
methods
from
simple
qualitative
pictures
to
complicated
quantitative
approaches
is
connected
with
the
increased
complexity
stereoselective