Chemical Reviews,
Journal Year:
2024,
Volume and Issue:
125(1), P. 91 - 149
Published: Dec. 19, 2024
Cell-free
gene
expression
(CFE)
systems
empower
synthetic
biologists
to
build
biological
molecules
and
processes
outside
of
living
intact
cells.
The
foundational
principle
is
that
precise,
complex
biomolecular
transformations
can
be
conducted
in
purified
enzyme
or
crude
cell
lysate
systems.
This
concept
circumvents
mechanisms
have
evolved
facilitate
species
survival,
bypasses
limitations
on
molecular
transport
across
the
wall,
provides
a
significant
departure
from
traditional,
cell-based
rely
microscopic
cellular
"reactors."
In
addition,
cell-free
are
inherently
distributable
through
freeze-drying,
which
allows
simple
distribution
before
rehydration
at
point-of-use.
Furthermore,
as
nonliving,
they
provide
built-in
safeguards
for
biocontainment
without
constraints
attendant
genetically
modified
organisms.
These
features
led
increase
development
use
CFE
over
past
two
decades.
Here,
we
discuss
recent
advances
highlight
how
transforming
efforts
cells,
control
genetic
networks,
manufacture
biobased
products.
Catalysts,
Journal Year:
2024,
Volume and Issue:
14(1), P. 84 - 84
Published: Jan. 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
JACS Au,
Journal Year:
2023,
Volume and Issue:
3(8), P. 2073 - 2085
Published: July 19, 2023
Biocatalysis
is
becoming
an
increasingly
impactful
method
in
contemporary
synthetic
chemistry
for
target
molecule
synthesis.
The
selectivity
imparted
by
enzymes
has
been
leveraged
to
complete
previously
intractable
chemical
transformations
and
improve
routes
toward
complex
molecules.
However,
the
implementation
of
biocatalysis
mainstream
organic
gradual
this
point.
This
partly
due
a
set
historical
technological
barriers
that
have
prevented
chemists
from
using
as
tool
with
utility
parallels
alternative
modes
catalysis.
In
Perspective,
we
discuss
these
how
they
hindered
adoption
enzyme
catalysts
into
strategies.
We
also
summarize
tools
resources
already
enable
use
biocatalysts.
Furthermore,
ways
further
lower
broader
community
through
dissemination
resources,
demystifying
biocatalytic
reactions,
increasing
collaboration
across
field.
Chemical Reviews,
Journal Year:
2023,
Volume and Issue:
123(16), P. 10381 - 10431
Published: July 31, 2023
The
ability
to
site-selectively
modify
equivalent
functional
groups
in
a
molecule
has
the
potential
streamline
syntheses
and
increase
product
yields
by
lowering
step
counts.
Enzymes
catalyze
site-selective
transformations
throughout
primary
secondary
metabolism,
but
leveraging
this
capability
for
non-native
substrates
reactions
requires
detailed
understanding
of
limitations
enzyme
catalysis
how
these
bounds
can
be
extended
protein
engineering.
In
review,
we
discuss
representative
examples
involving
group
manipulation
C-H
bond
functionalization.
We
include
illustrative
native
catalysis,
our
focus
is
on
cases
often
using
engineered
enzymes.
then
use
enzymes
chemoenzymatic
target-oriented
synthesis
conclude
with
survey
tools
techniques
that
could
expand
scope
catalysis.
ACS Catalysis,
Journal Year:
2024,
Volume and Issue:
14(9), P. 6462 - 6469
Published: April 12, 2024
Protein
engineering
is
essential
for
improving
the
catalytic
performance
of
enzymes
applications
in
biocatalysis,
which
machine
learning
provides
an
emerging
approach
variant
design.
Transaminases
are
powerful
biocatalysts
stereoselective
synthesis
chiral
amines
but
one
major
challenge
their
limited
substrate
scope.
We
present
a
general
and
practical
design
protocol
protein
to
combine
advantages
three
strategies,
including
directed
evolution,
rational
design,
learning,
demonstrate
application
transaminases
with
higher
activity
toward
bulky
substrates.
A
high-quality
data
set
was
obtained
by
selected
key
positions,
then
applied
create
model
transaminase
activity.
This
data-assisted
optimized
variants,
showed
improved
(up
3-fold
over
parent)
substrates,
maintaining
enantioselectivity
starting
enzyme
scaffold
as
well
enantiomeric
excess
>99%ee).
Journal of Flow Chemistry,
Journal Year:
2024,
Volume and Issue:
14(1), P. 219 - 238
Published: Feb. 14, 2024
Abstract
The
merging
of
biocatalysis
with
continuous-flow
chemistry
opens
up
new
opportunities
for
sustainable
and
efficient
chemical
synthesis.
Cofactor-dependent
enzymes
are
essential
various
industrially
attractive
biocatalytic
reactions.
However,
implementing
these
reactions
in
industry
remains
challenging
due
to
the
inherent
cost
cofactors
requirement
their
external
supply
significant
quantities.
development
efficient,
low
cost,
simple
versatile
methods
cofactor
immobilization
can
address
this
important
obstacle
flow.
This
review
explores
recent
progress
by
analyzing
advantages
current
limitations
available
that
comprise
covalent
tethering,
ionic
adsorption,
physical
entrapment,
hybrid
variations
thereof.
Moreover,
analyzes
all
techniques
specifically
utilization
provides
a
perspective
future
work
area.
will
serve
as
guide
steering
field
towards
more
economically
viable
biocatalysis.
Graphical
ACS Catalysis,
Journal Year:
2024,
Volume and Issue:
14(8), P. 6358 - 6368
Published: April 11, 2024
Enzyme-catalyzed
stereodivergent
synthesis
to
access
all
possible
stereoisomers
of
organofluorine
compounds
bearing
multiple
stereogenic
centers
remains
an
important
and
challenging
subject.
By
integrative
data-driven
mining
mechanism-guided
engineering
ketoreductases,
we
identified
a
biocatalytic
platform
produce
four
stereoisomeric
fluoroalkyl
amino
acid
esters
two
vicinal
stereocenters.
Fast
triple-parameter
coevolution
via
semirational
CAST/ISM
strategy
provided
the
quadruple
mutant
M5
(A140K/L203T/G92A/V84I)
ketoreductase
BgADH
not
only
displayed
high
stereoselectivity
toward
target
(99:1
dr,
99%
ee)
but
also
observed
with
enhanced
activity
(kcat/Km,
6.3
folds)
improved
thermostability
(T5015,
4
°C).
Crystal
structural
analysis
molecular
dynamics
(MD)
simulation
studies
unveil
residues
(A140
F148)
be
key
sites
that
are
responsible
for
control
stereoselectivity.
The
L203T/G92A
mutation
by
affecting
conformational
distribution
α-helix
within
active-site
region,
V84I
thermal
stability
strengthening
hydrogen
bonding
network
neighboring
residues.
synthetic
utility
was
further
demonstrated
substrate
scope
expansion,
gram-scale
reactions
(648
g
L–1
day–1),
transformations
chiral
fluorinated
β-lactams
antibiotic
carbapenem
cores.
ACS Omega,
Journal Year:
2024,
Volume and Issue:
9(47), P. 46698 - 46732
Published: Nov. 14, 2024
Immobilization
of
lipases
by
physical
adsorption
improves
their
stability,
recovery,
and
reusability
in
biotechnological
processes.
The
present
review
provides
an
advanced
bibliometric
analysis
a
comprehensive
overview
research
progress
this
field.
By
searching
Web
Science,
39,575
publications
were
analyzed,
325
relevant
articles
selected.
Key
journals,
countries,
institutions,
authors
identified.
most
cited
focus
on
biofuel
production
industrial
applications.
revealed
four
themes
with
the
biofuel.
method
is
effective
when
appropriate
support
used.
Despite
decrease
patent
applications,
interest
remains
high.
Future
studies
should
optimizing
materials
exploring
new
applications
technique.
detailed
understanding
immobilization
adsorption.
BBA Advances,
Journal Year:
2025,
Volume and Issue:
7, P. 100149 - 100149
Published: Jan. 1, 2025
The
fundamental
biological
processes
involving
highly
specific
interactions
between
proteins
and
other
motifs
are
the
pillars
of
protein
recognition
mechanisms.
These
crucial
for
systems,
often
having
significant
implications
within
diagnostics
therapy
development.
Protein
specificity
reliant
on
structural
compatibility,
dynamic
conformational
changes,
biochemical
interactions-all
which
grounded
in
molecular
forces
like
hydrogen
bonding,
ionic
interactions,
van
der
Waals
forces.
Advanced
characterization
tools
have
improved
our
understanding
revealing
kinetics
thermodynamics
these
In
parallel,
new
computing
methods,
including
artificial
intelligence,
docking,
dynamical
simulations,
increased
prediction
accuracy
leading
to
well-defined
interaction
sites
binding
information.
is
pivotal
diagnostic
methods
ELISAs
biosensors,
disease
detection
applications.
therapeutics,
plays
an
important
role
drug
development,
enabling
design
small
molecules,
peptides,
monoclonal
antibodies.
Despite
recent
progress,
there
many
challenges
remaining
fully
understand
recognition,
particularly
complex
cell
environment.
require
future
work
studies
enhance
therapeutic
researchers
using
screening
identify,
assess,
optimize
clinical
translation.
Nature Communications,
Journal Year:
2025,
Volume and Issue:
16(1)
Published: Feb. 28, 2025
Abstract
Vanadium-dependent
haloperoxidases
(VHPOs)
are
biotechnologically
valuable
and
operationally
versatile
biocatalysts.
VHPOs
share
remarkable
active-site
structural
similarities
yet
display
variable
reactivity
selectivity.
The
factors
dictating
substrate
specificity
and,
thus,
a
general
understanding
of
VHPO
reaction
control
still
need
to
be
discovered.
This
work’s
strategic
single-point
mutation
in
the
cyanobacterial
bromoperoxidase
Am
facilitates
selectivity
switch
allow
aryl
chlorination.
induces
loop
formation
that
interacts
with
neighboring
protein
monomer,
creating
tunnel
active
sites.
Structural
analysis
substrate-R425S-mutant
complex
reveals
substrate-binding
site
at
interface
two
adjacent
units.
There,
residues
Glu139
Phe401
interact
arenes,
extending
residence
time
close
vanadate
cofactor
stabilizing
intermediates.
Our
findings
validate
long-debated
existence
direct
binding
provide
detailed
mechanistic
understanding.
work
will
pave
way
for
broader
application
diverse
chemical
processes.