Reaction Chemistry & Engineering,
Год журнала:
2024,
Номер
10(3), С. 656 - 666
Опубликована: Дек. 11, 2024
DynO
guides
an
experimental
optimization
campaign
by
suggesting
the
conditions
to
use
in
dynamic
flow
experiments.
is
supported
a
Gaussian
process
and
stopping
criteria,
efficiently
combining
experiments
Bayesian
optimization.
Chemical Science,
Год журнала:
2024,
Номер
15(13), С. 4618 - 4630
Опубликована: Янв. 1, 2024
This
article
defines
the
role
that
continuous
flow
chemistry
can
have
in
new
reaction
discovery,
thereby
creating
molecular
assembly
opportunities
beyond
our
current
capabilities.
Most
notably
focus
is
based
upon
photochemical,
electrochemical
and
temperature
sensitive
processes
where
methods
machine
assisted
processing
significant
impact
on
chemical
reactivity
patterns.
These
platforms
are
ideally
placed
to
exploit
future
innovation
data
acquisition,
feed-back
control
through
artificial
intelligence
(AI)
learning
(ML)
techniques.
Beilstein Journal of Organic Chemistry,
Год журнала:
2024,
Номер
20, С. 2476 - 2492
Опубликована: Окт. 4, 2024
This
review
surveys
the
recent
advances
and
challenges
in
predicting
optimizing
reaction
conditions
using
machine
learning
techniques.
The
paper
emphasizes
importance
of
acquiring
processing
large
diverse
datasets
chemical
reactions,
use
both
global
local
models
to
guide
design
synthetic
processes.
Global
exploit
information
from
comprehensive
databases
suggest
general
for
new
while
fine-tune
specific
parameters
a
given
family
improve
yield
selectivity.
also
identifies
current
limitations
opportunities
this
field,
such
as
data
quality
availability,
integration
high-throughput
experimentation.
demonstrates
how
combination
engineering,
science,
ML
algorithms
can
enhance
efficiency
effectiveness
design,
enable
novel
discoveries
chemistry.
Nature Communications,
Год журнала:
2024,
Номер
15(1)
Опубликована: Ноя. 23, 2024
The
rapid
emergence
of
large
language
model
(LLM)
technology
presents
promising
opportunities
to
facilitate
the
development
synthetic
reactions.
In
this
work,
we
leveraged
power
GPT-4
build
an
LLM-based
reaction
framework
(LLM-RDF)
handle
fundamental
tasks
involved
throughout
chemical
synthesis
development.
LLM-RDF
comprises
six
specialized
agents,
including
Literature
Scouter,
Experiment
Designer,
Hardware
Executor,
Spectrum
Analyzer,
Separation
Instructor,
and
Result
Interpreter,
which
are
pre-prompted
accomplish
designated
tasks.
A
web
application
with
as
backend
was
built
allow
chemist
users
interact
automated
experimental
platforms
analyze
results
via
natural
language,
thus,
eliminating
need
for
coding
skills
ensuring
accessibility
all
chemists.
We
demonstrated
capabilities
in
guiding
end-to-end
process
copper/TEMPO
catalyzed
aerobic
alcohol
oxidation
aldehyde
reaction,
literature
search
information
extraction,
substrate
scope
condition
screening,
kinetics
study,
optimization,
scale-up
product
purification.
Furthermore,
LLM-RDF's
broader
applicability
versability
validated
on
various
three
distinct
reactions
(SNAr
photoredox
C-C
cross-coupling
heterogeneous
photoelectrochemical
reaction).
rise
offers
new
advancing
synthesis.
Here,
authors
developed
copilot
design
Organic Process Research & Development,
Год журнала:
2024,
Номер
28(3), С. 674 - 692
Опубликована: Фев. 19, 2024
Zeneth,
a
software
application
for
the
prediction
of
chemical
degradation
small
organic
molecules,
incorporates
knowledge
base
rules
to
predict
pathways.
In
addition,
contains
property
predictors
that
modulate
predicted
likelihood
given
product.
this
study,
C–H
bond
dissociation
energy
(C–H
BDE)
predictor,
which
has
been
integrated
into
software,
was
utilized.
To
determine
software's
predictive
capabilities
[using
its
(2020.1.0
KB)],
experimentally
derived
profiles
25
drug
substances
were
compared
Zeneth
predictions.
These
from
forced
studies,
including
accelerated
and
long-term
stability
aligned
with
International
Council
Harmonisation
(ICH)
guidelines.
two
case
studies
highlighting
how
data
can
be
utilized
confirm
experimental
or
assist
identification
unknown
products
have
presented.
The
specificity
results
evaluated;
transformation
types
often
not
observed
identified,
an
assessment
causes
is
sensitivity
study
group
also
evaluated
using
historic
(2012.2.0
KB),
enabling
improved
over
period;
comparison
demonstrated
40%
increase
in
sensitivity.
This
ongoing
expansion
optimization
silico
tools
continues
result
improvements
capability
ability
impart
insight
space
aid
pharmaceutical
development.
The
rapid
emergence
of
large
language
model
(LLM)
technology
presents
significant
opportunities
to
facilitate
the
development
synthetic
reactions.
In
this
work,
we
leveraged
power
GPT-4
build
a
multi-agent
system
handle
fundamental
tasks
involved
throughout
chemical
synthesis
process.
comprises
six
specialized
LLM-based
agents,
including
Literature
Scouter,
Experiment
Designer,
Hardware
Executor,
Spectrum
Analyzer,
Separation
Instructor,
and
Result
Interpreter,
which
are
pre-prompted
accomplish
designated
tasks.
A
web
application
was
built
with
as
backend
allow
chemist
users
interact
experimental
platforms
analyze
results
via
natural
language,
thus,
requiring
zero-coding
skills
easy
access
for
all
chemists.
We
demonstrated
on
recently
developed
copper/TEMPO
catalyzed
aerobic
alcohol
oxidation
aldehyde
reaction,
LLM
copiloted
end-to-end
reaction
process
includes:
literature
search
information
extraction,
substrate
scope
condition
screening,
kinetics
study,
optimization,
scale-up
product
purification.
This
work
showcases
trilogy
among
users,
automated
reform
traditional
expert-centric
labor-intensive
workflow.
Beilstein Journal of Organic Chemistry,
Год журнала:
2025,
Номер
21, С. 10 - 38
Опубликована: Янв. 6, 2025
The
discovery
of
the
optimal
conditions
for
chemical
reactions
is
a
labor-intensive,
time-consuming
task
that
requires
exploring
high-dimensional
parametric
space.
Historically,
optimization
has
been
performed
by
manual
experimentation
guided
human
intuition
and
through
design
experiments
where
reaction
variables
are
modified
one
at
time
to
find
specific
outcome.
Recently,
paradigm
change
in
enabled
advances
lab
automation
introduction
machine
learning
algorithms.
Therein,
multiple
can
be
synchronously
optimized
obtain
conditions,
requiring
shorter
minimal
intervention.
Herein,
we
review
currently
used
state-of-the-art
high-throughput
automated
platforms
algorithms
drive
reactions,
highlighting
limitations
future
opportunities
this
new
field
research.