Angewandte Chemie International Edition,
Год журнала:
2024,
Номер
63(21)
Опубликована: Март 18, 2024
Abstract
In
the
ever‐growing
demand
for
sustainable
ways
to
produce
high‐value
small
molecules,
biocatalysis
has
come
forefront
of
greener
routes
these
chemicals.
As
such,
need
constantly
find
and
optimise
suitable
biocatalysts
specific
transformations
never
been
greater.
Metagenome
mining
shown
rapidly
expand
toolkit
promiscuous
enzymes
needed
new
transformations,
without
requiring
protein
engineering
steps.
If
is
needed,
metagenomic
candidate
can
often
provide
a
better
starting
point
than
previously
discovered
enzyme
on
open
database
or
from
literature,
instance.
this
review,
we
highlight
where
metagenomics
made
substantial
impact
area
in
recent
years.
We
review
discovery
unexplored
‘hidden’
sequence
space,
leading
characterisation
with
enhanced
properties
that
originate
natural
selection
pressures
native
environments.
ACS Central Science,
Год журнала:
2024,
Номер
10(2), С. 226 - 241
Опубликована: Фев. 5, 2024
Enzymes
can
be
engineered
at
the
level
of
their
amino
acid
sequences
to
optimize
key
properties
such
as
expression,
stability,
substrate
range,
and
catalytic
efficiency-or
even
unlock
new
activities
not
found
in
nature.
Because
search
space
possible
proteins
is
vast,
enzyme
engineering
usually
involves
discovering
an
starting
point
that
has
some
desired
activity
followed
by
directed
evolution
improve
its
"fitness"
for
a
application.
Recently,
machine
learning
(ML)
emerged
powerful
tool
complement
this
empirical
process.
ML
models
contribute
(1)
discovery
functional
annotation
known
protein
or
generating
novel
with
functions
(2)
navigating
fitness
landscapes
optimization
mappings
between
associated
values.
In
Outlook,
we
explain
how
complements
discuss
future
potential
improved
outcomes.
Advanced Materials,
Год журнала:
2024,
Номер
36(21)
Опубликована: Фев. 7, 2024
Single-atom
nanozymes
(SAzymes)
showcase
not
only
uniformly
dispersed
active
sites
but
also
meticulously
engineered
coordination
structures.
These
intricate
architectures
bestow
upon
them
an
exceptional
catalytic
prowess,
thereby
captivating
numerous
minds
and
heralding
a
new
era
of
possibilities
in
the
biomedical
landscape.
Tuning
microstructure
SAzymes
on
atomic
scale
is
key
factor
designing
targeted
with
desirable
functions.
This
review
first
discusses
summarizes
three
strategies
for
their
impact
reactivity
biocatalysis.
The
effects
choices
carrier,
different
synthesis
methods,
modulation
first/second
shell,
type
number
metal
centers
enzyme-like
activity
are
unraveled.
Next,
attempt
made
to
summarize
biological
applications
tumor
therapy,
biosensing,
antimicrobial,
anti-inflammatory,
other
from
mechanisms.
Finally,
how
designed
regulated
further
realization
diverse
reviewed
prospected.
It
envisaged
that
comprehensive
presented
within
this
exegesis
will
furnish
novel
perspectives
profound
revelations
regarding
SAzymes.
Nature Communications,
Год журнала:
2024,
Номер
15(1)
Опубликована: Апрель 24, 2024
Achieving
cost-competitive
bio-based
processes
requires
development
of
stable
and
selective
biocatalysts.
Their
realization
through
in
vitro
enzyme
characterization
engineering
is
mostly
low
throughput
labor-intensive.
Therefore,
strategies
for
increasing
while
diminishing
manual
labor
are
gaining
momentum,
such
as
vivo
screening
evolution
campaigns.
Computational
tools
like
machine
learning
further
support
efforts
by
widening
the
explorable
design
space.
Here,
we
propose
an
integrated
solution
to
challenges
whereby
ML-guided,
automated
workflows
(including
library
generation,
implementation
hypermutation
systems,
adapted
laboratory
evolution,
growth-coupled
selection)
could
be
realized
accelerate
pipelines
towards
superior
Chemical Society Reviews,
Год журнала:
2024,
Номер
53(16), С. 8202 - 8239
Опубликована: Янв. 1, 2024
Global
environmental
issues
and
sustainable
development
call
for
new
technologies
fine
chemical
synthesis
waste
valorization.
Biocatalysis
has
attracted
great
attention
as
the
alternative
to
traditional
organic
synthesis.
However,
it
is
challenging
navigate
vast
sequence
space
identify
those
proteins
with
admirable
biocatalytic
functions.
The
recent
of
deep-learning
based
structure
prediction
methods
such
AlphaFold2
reinforced
by
different
computational
simulations
or
multiscale
calculations
largely
expanded
3D
databases
enabled
structure-based
design.
While
approaches
shed
light
on
site-specific
enzyme
engineering,
they
are
not
suitable
large-scale
screening
potential
biocatalysts.
Effective
utilization
big
data
using
machine
learning
techniques
opens
up
a
era
accelerated
predictions.
Here,
we
review
applications
machine-learning
guided
We
also
provide
our
view
challenges
perspectives
effectively
employing
design
integrating
molecular
learning,
importance
database
construction
algorithm
in
attaining
predictive
ML
models
explore
fitness
landscape
Accounts of Chemical Research,
Год журнала:
2024,
Номер
57(9), С. 1446 - 1457
Опубликована: Апрель 11, 2024
ConspectusEnzymes
are
desired
catalysts
for
chemical
synthesis,
because
they
can
be
engineered
to
provide
unparalleled
levels
of
efficiency
and
selectivity.
Yet,
despite
the
astonishing
array
reactions
catalyzed
by
natural
enzymes,
many
reactivity
patterns
found
in
small
molecule
have
no
counterpart
living
world.
With
a
detailed
understanding
mechanisms
utilized
catalysts,
we
identify
existing
enzymes
with
potential
catalyze
that
currently
unknown
nature.
Over
past
eight
years,
our
group
has
demonstrated
flavin-dependent
"ene"-reductases
(EREDs)
various
radical-mediated
selectivity,
solving
long-standing
challenges
asymmetric
synthesis.This
Account
presents
development
EREDs
as
general
radical
reactions.
While
developed
multiple
generating
radicals
within
protein
active
sites,
this
account
will
focus
on
examples
where
flavin
mononucleotide
hydroquinone
(FMNhq)
serves
an
electron
transfer
initiator.
initial
mechanistic
hypotheses
were
rooted
electron-transfer-based
initiation
commonly
used
synthetic
organic
chemists,
ultimately
uncovered
emergent
unique
site.
We
begin
covering
intramolecular
discussing
how
activates
substrate
reduction
altering
redox-potential
alkyl
halides
templating
charge
complex
between
flavin-cofactor.
Protein
engineering
been
modify
fundamental
photophysics
these
reactions,
highlighting
opportunity
tune
systems
further
using
directed
evolution.
This
section
highlights
range
coupling
partners
termination
available
reactions.The
next
intermolecular
role
enzyme-templated
ternary
complexes
among
cofactor,
halide,
partner
gating
ensure
it
only
occurs
when
both
substrates
bound
highlight
applications
activation
mode,
including
olefin
hydroalkylation,
carbohydroxylation,
arene
functionalization,
nitronate
alkylation.
also
discusses
favor
steps
elusive
solution
reductive
nitroalkanes.
aware
several
recent
EREDs-catalyzed
photoenzymatic
transformations
from
other
groups.
discuss
results
papers
context
nuances
substrates.These
biocatalytic
often
complement
state-of-the-art
small-molecule-catalyzed
making
valuable
addition
chemist's
toolbox.
Moreover,
underlying
principles
studied
potentially
operative
cofactor-dependent
proteins,
opening
door
different
types
enzyme-catalyzed
anticipate
serve
guide
inspire
broad
interest
repurposing
access
new
transformations.
Catalysts,
Год журнала:
2024,
Номер
14(1), С. 84 - 84
Опубликована: Янв. 19, 2024
Biocatalysis
holds
immense
potential
for
pharmaceutical
development
as
it
enables
synthetic
routes
to
various
chiral
building
blocks
with
unparalleled
selectivity.
Therein,
solvent
and
water
use
account
a
large
contribution
the
environmental
impact
of
reactions.
In
spirit
Green
Chemistry,
transition
from
traditional
highly
diluted
aqueous
systems
intensified
non-aqueous
media
overcome
limitations
(e.g.,
shortages,
recalcitrant
wastewater
treatments,
low
substrate
loadings)
has
been
observed.
Benefiting
spectacular
advances
in
enzyme
stabilization
techniques,
plethora
biotransformations
non-conventional
have
established.
Deep
eutectic
solvents
(DESs)
emerge
sort
(potentially)
greener
medium
increasing
biocatalysis.
This
review
discusses
state-of-the-art
DESs
focus
on
biocatalytic
pathways
synthesis
active
ingredients
(APIs).
Representative
examples
different
classes
are
discussed,
together
critical
vision
discussing
prospects
using
Nature Communications,
Год журнала:
2024,
Номер
15(1)
Опубликована: Июль 29, 2024
Abstract
The
effective
design
of
combinatorial
libraries
to
balance
fitness
and
diversity
facilitates
the
engineering
useful
enzyme
functions,
particularly
those
that
are
poorly
characterized
or
unknown
in
biology.
We
introduce
MODIFY,
a
machine
learning
(ML)
algorithm
learns
from
natural
protein
sequences
infer
evolutionarily
plausible
mutations
predict
fitness.
MODIFY
co-optimizes
predicted
sequence
starting
libraries,
prioritizing
high-fitness
variants
while
ensuring
broad
coverage.
In
silico
evaluation
shows
outperforms
state-of-the-art
unsupervised
methods
zero-shot
prediction
enables
ML-guided
directed
evolution
with
enhanced
efficiency.
Using
we
engineer
generalist
biocatalysts
derived
thermostable
cytochrome
c
achieve
enantioselective
C-B
C-Si
bond
formation
via
new-to-nature
carbene
transfer
mechanism,
leading
six
away
previously
developed
enzymes
exhibiting
superior
comparable
activities.
These
results
demonstrate
MODIFY’s
potential
solving
challenging
problems
beyond
reach
classic
evolution.
Protein Engineering Design and Selection,
Год журнала:
2024,
Номер
37
Опубликована: Янв. 1, 2024
Abstract
SPMweb
is
the
online
webserver
of
Shortest
Path
Map
(SPM)
tool
for
identifying
key
conformationally-relevant
positions
a
given
enzyme
structure
and
dynamics.
The
server
built
on
top
DynaComm.py
code
enables
calculation
visualization
SPM
pathways.
easy-to-use
as
it
only
requires
three
input
files:
three-dimensional
protein
interest,
two
matrices
(distance
correlation)
previously
computed
from
Molecular
Dynamics
simulation.
We
provide
in
this
publication
information
how
to
generate
files
construction
even
non-expert
users
discuss
most
relevant
parameters
that
can
be
modified.
extremely
fast
(it
takes
less
than
one
minute
per
job),
thus
allowing
rapid
identification
distal
connected
active
site
pocket
enzyme.
applications
expand
computational
design,
especially
if
combined
with
other
tools
identify
preferred
substitution
at
identified
position,
but
also
rationalizing
allosteric
regulation,
cryptic
drug
discovery.
simple
user
interface
setup
make
accessible
whole
scientific
community.
freely
available
academia
http://spmosuna.com/.
ACS Catalysis,
Год журнала:
2024,
Номер
14(8), С. 5560 - 5592
Опубликована: Март 29, 2024
Cytochrome
P450
BM3
monooxygenase
is
the
topic
of
extensive
research
as
many
researchers
have
evolved
this
enzyme
to
generate
a
variety
products.
However,
abundance
information
on
increasingly
diversified
variants
that
catalyze
broad
array
chemistry
not
in
format
enables
easy
extraction
and
interpretation.
We
present
database
categorizes
by
their
catalyzed
reactions
includes
details
about
substrates
provide
reaction
context.
This
>1500
downloadable
machine-readable
instructions
maximize
ease
gathering
information.
The
allows
rapid
identification
commonly
reported
substitutions,
aiding
who
are
unfamiliar
with
identifying
starting
points
for
engineering.
For
those
actively
engaged
engineering
BM3,
database,
along
review,
provides
powerful
user-friendly
platform
understand,
predict,
identify
attributes
variants,
encouraging
further
enzyme.
Molecules,
Год журнала:
2024,
Номер
29(5), С. 989 - 989
Опубликована: Фев. 24, 2024
Enzymes
play
an
important
role
in
numerous
natural
processes
and
are
increasingly
being
utilized
as
environmentally
friendly
substitutes
alternatives
to
many
common
catalysts.
Their
essential
advantages
high
catalytic
efficiency,
substrate
specificity,
minimal
formation
of
byproducts,
low
energy
demand.
All
these
benefits
make
enzymes
highly
desirable
targets
academic
research
industrial
development.
This
review
has
the
modest
aim
briefly
overviewing
classification,
mechanism
action,
basic
kinetics
reaction
condition
effects
that
across
all
six
enzyme
classes.
Special
attention
is
devoted
immobilization
strategies
main
tools
improve
resistance
environmental
stress
factors
(temperature,
pH
solvents)
prolong
lifecycle
biocatalysts.
The
drawbacks
methods
such
macromolecular
crosslinking,
solid
scaffold
carriers,
entrapment,
surface
modification
(covalent
physical)
discussed
illustrated
using
examples.
Among
hundreds
possibly
thousands
known
recently
discovered
enzymes,
hydrolases
oxidoreductases
distinguished
by
their
relative
availability,
stability,
wide
use
synthetic
applications,
which
include
pharmaceutics,
food
beverage
treatments,
clean-up,
polymerizations.
Two
representatives
those
groups-laccase
(an
oxidoreductase)
lipase
(a
hydrolase)-are
at
length,
including
structure,
mechanism,
diverse
usage.
Objective
representation
current
status
emerging
trends
provided
conclusions.