Computational
asymmetric
catalysis
has
seen
an
impressive
rise
in
the
last
twenty
years,
thanks
to
advancements
algorithm
and
method
development
for
predicting
catalyst
enantioselectivity.
These
methods/algorithms
describe
reactions
that
can
be
categorized
into
two
groups:
where
1)
knowledge
of
mechanism
is
not
required
leveraging
experimental
data
establish
correlations
between
reaction
descriptors
enantioselectivity
imperative,
2)
(or
transition
state
(TS)
enantioselective
step)
known
used
determine
stereoselectivity
by
modeling
diastereomeric
TSs.
Although
these
methods
have
reached
important
level
proficiency
prediction,
this
field
remains
largely
obscured
chemists.
In
review,
we
aim
shed
light
on
models,
methods,
applications
synthesis,
with
accessible
language
suited
Our
hope
will
ultimately
adopted
synthetic
chemists
design
novel
catalysts.
ChemPlusChem,
Journal Year:
2024,
Volume and Issue:
89(7)
Published: Jan. 26, 2024
In
the
past
decade,
computational
tools
have
become
integral
to
catalyst
design.
They
continue
offer
significant
support
experimental
organic
synthesis
and
catalysis
researchers
aiming
for
optimal
reaction
outcomes.
More
recently,
data-driven
approaches
utilizing
machine
learning
garnered
considerable
attention
their
expansive
capabilities.
This
Perspective
provides
an
overview
of
diverse
initiatives
in
realm
design
introduces
our
automated
tailored
high-throughput
silico
exploration
chemical
space.
While
valuable
insights
are
gained
through
methods
analysis
space,
degree
automation
modularity
key.
We
argue
that
integration
data-driven,
modular
workflows
is
key
enhancing
homogeneous
on
unprecedented
scale,
contributing
advancement
research.
Chemical Science,
Journal Year:
2024,
Volume and Issue:
15(34), P. 13618 - 13630
Published: Jan. 1, 2024
Enantioselective
hydrogenation
of
olefins
by
Rh-based
chiral
catalysts
has
been
extensively
studied
for
more
than
50
years.
Naively,
one
would
expect
that
everything
about
this
transformation
is
known
and
selecting
a
catalyst
induces
the
desired
reactivity
or
selectivity
trivial
task.
Nonetheless,
ligand
engineering
selection
any
new
prochiral
olefin
remains
an
empirical
trial-error
exercise.
In
study,
we
investigated
whether
machine
learning
techniques
could
be
used
to
accelerate
identification
most
efficient
ligand.
For
purpose,
high
throughput
experimentation
build
large
dataset
consisting
results
Rh-catalyzed
asymmetric
hydrogenation,
specially
designed
applications
in
learning.
We
showcased
its
alignment
with
existing
literature
while
addressing
observed
discrepancies.
Additionally,
computational
framework
automated
reproducible
quantum-chemistry
based
featurization
structures
was
created.
Together
less
computationally
demanding
representations,
these
descriptors
were
fed
into
our
pipeline
both
out-of-domain
in-domain
prediction
tasks
reactivity.
purposes,
models
provided
limited
efficacy.
It
found
even
expensive
do
not
impart
significant
meaning
model
predictions.
The
application,
partly
successful
predictions
conversion,
emphasizes
need
evaluating
cost-benefit
ratio
intensive
tailored
descriptor
design.
Challenges
persist
predicting
enantioselectivity,
calling
caution
interpreting
from
small
datasets.
Our
insights
underscore
importance
diversity
broad
substrate
inclusion
suggest
mechanistic
considerations
improve
accuracy
statistical
models.
The Journal of Physical Chemistry C,
Journal Year:
2024,
Volume and Issue:
128(19), P. 7987 - 7998
Published: May 2, 2024
Data-driven
catalyst
design
is
a
promising
approach
for
addressing
the
challenges
in
identifying
suitable
catalysts
synthetic
transformations.
Models
with
descriptor
calculations
relying
solely
on
precatalyst
structure
are
potentially
generalizable
but
may
overlook
catalyst–substrate
interactions.
This
study
explores
substrate-specific
interactions
context
of
Rh-catalyzed
asymmetric
hydrogenation
to
elucidate
impact
substrate
inclusion
and
descriptors
derived
from
it.
We
compare
complex
methyl
2-acetamidoacrylate
as
model
generic
involving
placeholder
substrate,
norbornadiene,
across
11
Rh-based
bidentate
bisphosphine
ligands.
For
these
systems,
full
conformer
ensemble
analysis
reveals
an
intriguing
finding:
rigid
induces
conformational
freedom
ligand.
flexibility
gives
rise
more
diverse
landscape,
showing
previously
overlooked
aspect
dynamics.
Electronic
variations
particularly
highlight
differences
between
structures.
suggests
that
precatalyst-like
models
lack
crucial
insights
into
catalyst.
speculate
such
be
general
phenomenon
can
influence
development
predictive
computational
TM-based
catalysis.
ACS Catalysis,
Journal Year:
2025,
Volume and Issue:
15(3), P. 2110 - 2123
Published: Jan. 22, 2025
Enantioselective
C(sp3)-H
bond
oxidation
is
a
powerful
strategy
for
installing
functionality
in
rich
molecules.
Site-
and
enantioselective
of
strong
C-H
bonds
monosubstituted
cyclohexanes
with
hydrogen
peroxide
catalyzed
by
aminopyridine
manganese
catalysts
combination
alkanoic
acids
has
been
recently
described.
Mechanistic
uncertainties
nonobvious
enantioselectivity
trends
challenge
development
the
full
potential
this
reaction
as
synthetic
tool.
Herein,
we
apply
predictive
statistical
analysis
to
identify
mechanistically
informative
correlations
that
provide
valuable
understanding
will
guide
future
optimization
reactions.
Chemical Science,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
This
article
reviews
computational
tools
for
the
prediction
of
regio-
and
site-selectivity
organic
reactions.
It
spans
from
quantum
chemical
procedures
to
deep
learning
models
showcases
application
presented
tools.
Journal of Chemical Theory and Computation,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 9, 2025
Transition-metal
complexes
serve
as
highly
enantioselective
homogeneous
catalysts
for
various
transformations,
making
them
valuable
in
the
pharmaceutical
industry.
Data-driven
prediction
models
can
accelerate
high-throughput
catalyst
design
but
require
computer-readable
representations
that
account
conformational
flexibility.
This
is
typically
achieved
through
high-level
conformer
searches,
followed
by
DFT
optimization
of
transition-metal
complexes.
However,
selection
remains
reliant
on
human
assumptions,
with
no
cost-efficient
and
generalizable
workflow
available.
To
address
this,
we
introduce
an
automated
approach
to
correlate
CREST(GFN2-xTB//GFN-FF)-generated
ensembles
their
DFT-optimized
counterparts
systematic
selection.
We
analyzed
24
precatalyst
structures,
performing
CREST
full
optimization.
Three
filtering
methods
were
evaluated:
(i)
geometric
ligand
descriptors,
(ii)
PCA-based
selection,
(iii)
DBSCAN
clustering
using
RMSD
energy.
The
proposed
validated
Rh-based
featuring
bisphosphine
ligands,
which
are
widely
employed
hydrogenation
reactions.
assess
general
applicability,
both
its
corresponding
acrylate-bound
complex
analyzed.
Our
results
confirm
overestimates
flexibility,
energy-based
ineffective.
failed
distinguish
conformers
energy,
while
RMSD-based
improved
lacked
tunability.
provided
most
effective
approach,
eliminating
redundancies
preserving
key
configurations.
method
remained
robust
across
data
sets
computationally
efficient
without
requiring
molecular
descriptor
calculations.
These
findings
highlight
limitations
advantages
structure-based
approaches
While
a
practical
solution,
parameters
remain
system-dependent.
For
high-accuracy
applications,
refined
energy
calculations
may
be
necessary;
however,
DBSCAN-based
offers
accessible
strategy
rapid
involving
Inorganic Chemistry,
Journal Year:
2024,
Volume and Issue:
63(13), P. 5842 - 5851
Published: March 20, 2024
Metathesis
reactions,
including
alkane,
alkene,
and
alkyne
metatheses,
have
their
origins
in
the
fundamental
understanding
of
chemical
reactions
development
specialized
catalysts.
These
stand
as
transformative
pillars
organic
chemistry,
providing
efficient
rearrangement
carbon-carbon
bonds
enabling
synthetic
access
to
diverse
complex
compounds.
Their
impact
spans
industries
such
petrochemicals,
pharmaceuticals,
materials
science.
In
this
work,
we
present
a
detailed
mechanistic
study
Re(V)
catalyzed
metathesis
through
density
functional
theory
calculations.
Our
findings
are
agreement
with
experimental
evidence
from
Jia
co-workers
unveil
critical
factors
governing
catalyst
performance.
work
not
only
enhances
our
but
also
contributes
broader
landscape
catalytic
processes,
facilitating
design
more
selective
transformations
synthesis.