Advances in the Simulations of Enzyme Reactivity in the Dawn of the Artificial Intelligence Age
Wiley Interdisciplinary Reviews Computational Molecular Science,
Год журнала:
2025,
Номер
15(1)
Опубликована: Янв. 1, 2025
ABSTRACT
The
study
of
natural
enzyme
catalytic
processes
at
a
molecular
level
can
provide
essential
information
for
rational
design
new
enzymes,
to
be
applied
in
more
efficient
and
environmentally
friendly
industrial
processes.
use
computational
tools,
combined
with
experimental
techniques,
is
providing
outstanding
milestones
the
last
decades.
However,
apart
from
complexity
associated
nature
these
large
flexible
biomolecular
machines,
full
catalyzed
process
involves
different
physical
chemical
steps.
Consequently,
point
view,
deep
understanding
every
single
step
requires
selection
proper
technique
get
reliable,
robust
useful
results.
In
this
article,
we
summarize
techniques
their
process,
including
conformational
diversity,
allostery
those
steps,
as
well
enzymes.
Because
impact
artificial
intelligence
all
aspects
science
during
years,
special
attention
has
been
methods
based
on
foundations
some
selected
recent
applications.
Язык: Английский
Methods for Theoretical Treatment of Local Fields in Proteins and Enzymes
Chemical Reviews,
Год журнала:
2025,
Номер
unknown
Опубликована: Фев. 24, 2025
Electric
fields
generated
by
protein
scaffolds
are
crucial
in
enzymatic
catalysis.
This
review
surveys
theoretical
approaches
for
detecting,
analyzing,
and
comparing
electric
fields,
electrostatic
potentials,
their
effects
on
the
charge
density
within
enzyme
active
sites.
Pioneering
methods
like
empirical
valence
bond
approach
rely
evaluating
ionic
covalent
resonance
forms
influenced
field.
Strategies
employing
polarizable
force
also
facilitate
field
detection.
The
vibrational
Stark
effect
connects
computational
simulations
to
experimental
spectroscopy,
enabling
direct
comparisons.
We
highlight
how
dynamics
induce
fluctuations
local
influencing
activity.
Recent
techniques
assess
throughout
site
volume
rather
than
only
at
specific
bonds,
machine
learning
helps
relate
these
global
reactivity.
Quantum
theory
of
atoms
molecules
captures
entire
electron
landscape,
providing
a
chemically
intuitive
perspective
field-driven
Overall,
methodologies
show
protein-generated
highly
dynamic
heterogeneous,
understanding
both
aspects
is
critical
elucidating
mechanisms.
holistic
view
empowers
rational
engineering
tuning
promising
new
avenues
drug
design,
biocatalysis,
industrial
applications.
Future
directions
include
incorporating
as
explicit
design
targets
enhance
catalytic
performance
biochemical
functionalities.
Язык: Английский
PyCPET─Computing Heterogeneous 3D Protein Electric Fields and Their Dynamics
Journal of Chemical Theory and Computation,
Год журнала:
2025,
Номер
unknown
Опубликована: Апрель 8, 2025
Electrostatic
preorganization
is
an
exciting
mode
to
understand
the
catalytic
function
of
enzymes,
yet
limited
tools
exist
computationally
analyze
it.
In
particular,
no
methods
interpret
geometry,
dynamics,
and
fundamental
components
3D
electric
fields,
E⃗(r),
in
protein
active
sites.
To
address
this,
we
present
PyCPET
(Python
Computation
Electric
Field
Topologies),
a
comprehensive,
open-source
toolbox
E⃗(r)
enzymes.
We
designed
it
around
computational
efficiency
user
friendliness
with
both
CPU-
GPU-accelerated
codes.
Our
aim
provide
set
functions
for
rich,
descriptive
analysis
enzyme
systems
including
benchmarking,
distribution
streamlines
computation
point
principal
component
analysis,
visualization.
Finally,
demonstrate
its
versatility
by
exploring
nature
electrostatic
dynamics
three
cases:
Cytochrome
C,
Co-substituted
Liver
Alcohol
Dehydrogenase,
HIV
Protease.
These
test
systems,
along
previous
work,
establish
as
essential
toolkit
in-depth
visualization
fields
unlocking
new
avenues
understanding
contributions
catalysis.
Язык: Английский
Electron transfer engineering of artificially designed cell factory for complete biosynthesis of steroids
Nature Communications,
Год журнала:
2025,
Номер
16(1)
Опубликована: Апрель 21, 2025
Biosynthesis
of
steroids
by
artificially
designed
cell
factories
often
involves
numerous
nicotinamide
adenine
dinucleotide
phosphate
(NADPH)-dependent
enzymes
that
mediate
electron
transfer
reactions.
However,
the
unclear
mechanisms
from
regeneration
to
final
delivery
NADPH-dependent
active
centers
limit
systematically
engineering
improve
production.
Here,
we
elucidate
for
engineer
Saccharomyces
cerevisiae,
including
step-by-step
residues
7-Dehydrocholesterol
reductase
(DHCR7)
and
P450
sterol
side
chain
cleaving
enzyme
(P450scc),
components
directing
carbon
flux,
NADPH
pathways,
high-level
production
cholesterol
(1.78
g/L)
pregnenolone
(0.83
g/L).
The
(ETE)
process
makes
chains
shorter
more
stable
which
significantly
accelerates
deprotonation
proton
coupled
process.
This
study
underscores
significance
ETE
strategies
in
biosynthesis
expands
synthetic
biology
approaches.
Язык: Английский
Machine-Learning Prediction of Protein Function from the Portrait of Its Intramolecular Electric Field
Journal of the American Chemical Society,
Год журнала:
2024,
Номер
unknown
Опубликована: Окт. 7, 2024
We
introduce
a
machine
learning
framework
designed
to
predict
enzyme
functionality
directly
from
the
heterogeneous
electric
fields
inherent
protein
active
sites.
apply
this
method
curated
data
set
of
heme-iron
oxidoreductases,
spanning
three
classes:
monooxygenases,
peroxidases,
and
catalases.
Conventional
analysis,
focused
on
simplistic,
point
along
Fe–O
bond,
is
shown
be
inadequate
for
accurate
activity
prediction.
Our
model
demonstrates
that
enzyme's
3-D
field,
alone,
can
accurately
its
function,
without
relying
additional
protein-specific
information.
Through
feature
selection,
we
uncover
key
field
components
not
only
validate
previous
studies
but
also
underscore
crucial
role
multiple
beyond
traditionally
emphasized
bond
in
heme
enzymes.
Furthermore,
by
integrating
dynamics,
principal
component
clustering,
QM/MM
calculations,
reveal
while
dynamic
complexities
structures
obscure
predictions,
still
retains
accuracy.
This
research
significantly
advances
our
understanding
how
scaffolds
possess
signature
tailored
their
functions
at
site.
Moreover,
it
presents
novel
electrostatics-based
tool
harness
these
predicting
function.
Язык: Английский
Enhancing the specific activity of 3α-hydroxysteroid dehydrogenase through cross-regional combinatorial mutagenesis
Siqi Ma,
Musen Li,
Shengheng Yan
и другие.
International Journal of Biological Macromolecules,
Год журнала:
2024,
Номер
283, С. 137014 - 137014
Опубликована: Ноя. 1, 2024
Язык: Английский
Machine-learning prediction of protein function from the portrait of its intramolecular electric field
Опубликована: Июнь 20, 2024
We
introduce
a
machine
learning
framework
designed
to
predict
enzyme
functionality
directly
from
the
heterogeneous
electric
fields
inherent
protein
active
sites.
apply
this
method
curated
dataset
of
Heme-Iron
Oxidoreductases,
spanning
three
classes:
monooxygenases,
peroxidases,
and
catalases.
Conventional
analysis,
focused
on
simplistic,
point
along
Fe-O
bond,
are
shown
be
inadequate
for
accurate
activity
prediction.
Our
model
demonstrates
that
enzyme's
heterogenous
3-D
field,
alone,
can
accurately
its
function,
without
relying
additional
protein-specific
information.
Through
feature
selection,
we
uncover
key
field
components
not
only
validate
previous
studies
but
also
underscore
crucial
role
multiple
beyond
traditionally
emphasized
bond
in
heme
enzymes.
Further,
by
integrating
dynamics,
principal
component
clustering,
QM/MM
calculations,
reveal
while
dynamic
complexities
structures
complicate
predictions,
accounting
increased
variability
substantially
enhance
performance.
This
research
significantly
advances
our
understanding
how
scaffolds
possess
signature
tailored
their
functions
at
site.
Moreover,
it
presents
novel
electrostatics-based
tool
harness
these
predicting
function.
Язык: Английский
Excited-state symmetry breaking is an ultrasensitive tool for probing microscopic electric fields
Chemical Science,
Год журнала:
2024,
Номер
15(38), С. 15565 - 15576
Опубликована: Янв. 1, 2024
Microscopic
electric
fields
are
increasingly
found
to
play
a
pivotal
role
in
catalysis
of
enzymatic
and
chemical
reactions.
Currently,
the
vibrational
Stark
effect
is
main
experimental
method
used
measure
them.
Here,
we
demonstrate
how
excited-state
symmetry
breaking
can
serve
as
much
more
sensitive
tool
assess
these
fields.
Using
transient
infrared
spectroscopy
on
quadrupolar
probe
equipped
with
nitrile
groups
both
its
superior
sensitivity
that
it
does
not
suffer
from
notorious
hydrogen-bond
induced
upshift
C[triple
bond,
length
m-dash]N
stretch
frequency.
In
combination
conventional
ground-state
absorption,
be
disentangle
even
weak
specific
hydrogen
bond
interactions
general
field
effects.
We
showcase
this
capability
example
C-H
bonds
polar
aprotic
solvents.
Additionally,
reveal
for
first
time
driven
by
solvent
but
entropy
pendant
side
chains
chromophore.
Our
findings
only
enhance
our
understanding
symmetry-breaking
charge-transfer
phenomena
pave
way
toward
using
them
sensing
modality.
Язык: Английский