Angewandte Chemie,
Год журнала:
2023,
Номер
136(8)
Опубликована: Ноя. 10, 2023
Abstract
Die
Herstellung
von
chemischen
Grundstoffen
wie
Benzol,
Toluol,
Ethylbenzol
und
Xylol
(BTEX)
aus
erneuerbaren
Ressourcen
ist
der
Schlüssel
zu
einer
nachhaltigen
Gesellschaft.
Biokatalyse
ermöglicht
die
Ein‐Topf‐Mehrschritt‐Transformation
Bioressourcen
unter
milden
Bedingungen,
jedoch
oft
auf
Biochemikalien
beschränkt.
Wir
haben
eine
nicht‐natürliche
Drei‐Enzym‐Kaskade
für
Ein‐Topf‐Umwandlung
biobasiertem
l
‐Phenylalanin
in
entwickelt.
geschwindigkeitsbestimmende
Photodecarboxylase
als
Schlüsselenzym
wurde
einem
strukturbasierten
semi‐rationalem
Engineering
unterzogen
es
Dreifachmutante
CvFAP(Y466T/P460A/G462I)
mit
6.3‐fach
höheren
Produktivität
erhalten.
Mit
dieser
verbesserten
ein
optimiertes
sequentielles
E.
coli
Zwei‐Zellsystem‐Verfahren
zur
Umwandlung
82
%
Umsatz
Kaskadenreaktion
Fermentation
integriert,
um
Ein‐Topf‐Bioproduktion
Glycerin
erreichen.
Dies
zeigt
das
Potenzial
Kaskaden‐Biokatalyse
Kombination
Enzym‐Engineering
Produktion
biobasierten
auf.
Frontiers in Bioengineering and Biotechnology,
Год журнала:
2022,
Номер
10
Опубликована: Июль 22, 2022
The
biosynthesis
of
metabolites
from
available
starting
materials
is
becoming
an
ever
important
area
due
to
the
increasing
demands
within
life
science
research
area.
Access
making
essential
contributions
analytical,
diagnostic,
therapeutic
and
different
industrial
applications.
These
molecules
can
be
synthesized
by
enzymes
biological
systems
under
sustainable
process
conditions.
facile
synthetic
access
metabolite
metabolite-like
molecular
space
fundamental
importance.
knowledge
biology,
enzyme
discovery
production
together
with
their
biochemical
structural
properties
offers
excellent
opportunities
for
using
modular
cell-free
biocatalytic
systems.
This
reduces
complexity
synthesizing
whole-cell
approaches
or
classical
chemical
synthesis.
A
biocatalysis
approach
provide
a
wealth
optimized
already
identified
new
molecules.
Reaction Chemistry & Engineering,
Год журнала:
2023,
Номер
8(9), С. 2109 - 2118
Опубликована: Янв. 1, 2023
Great
advances
in
tools
and
methodologies
along
the
whole
workflow
are
providing
sustainable
routes
to
a
desired
metabolite
which
can
replace
extractive
manufacturing
from
endangered
biological
species
or
lengthy
chemical
fossil-based
starting
materials.
Angewandte Chemie,
Год журнала:
2023,
Номер
135(42)
Опубликована: Сен. 1, 2023
Abstract
A
mild,
scalable
(kg)
metal‐free
electrochemical
decarboxylation
of
alkyl
carboxylic
acids
to
olefins
is
disclosed.
Numerous
applications
are
presented
wherein
this
transformation
can
simplify
alkene
synthesis
and
provide
alternative
synthetic
access
valuable
from
simple
acid
feedstocks.
This
robust
method
relies
on
alternating
polarity
maintain
the
quality
electrode
surface
local
pH,
providing
a
deeper
understanding
Hofer‐Moest
process
with
unprecedented
chemoselectivity.
Angewandte Chemie,
Год журнала:
2024,
Номер
unknown
Опубликована: Май 22, 2024
Abstract
Drawing
inspiration
from
nature
has
long
been
a
cornerstone
of
chemical
innovation,
with
natural
systems
offering
wealth
untapped
potential
for
discovery.
In
this
minireview,
we
delve
into
the
burgeoning
field
cobaloxime
catalysis
in
organic
synthesis,
which
mimics
catalytic
activity
organometallic
alkylcobalamine
enzymes.
Our
focus
lies
on
elucidating
latest
advancements
area,
as
well
delineating
primary
mechanistic
pathways
at
play.
By
describing,
and
comparing
these
mechanisms,
provide
comprehensive
overview
current
state‐of‐the‐art,
while
also
shedding
light
key
unresolved
challenges
that
await
further
exploration.
Molecules,
Год журнала:
2024,
Номер
29(23), С. 5772 - 5772
Опубликована: Дек. 6, 2024
Enzyme
catalysis
was
traditionally
used
by
various
human
cultures
to
create
value
long
before
its
basic
concepts
were
uncovered.
This
achieved
transforming
the
raw
materials
available
from
natural
resources
into
useful
products.
Tremendous
scientific
and
technological
progress
has
been
made
globally
in
understanding
what
constitutes
an
enzyme;
reactions
enzymes
can
catalyze;
how
search,
develop,
apply,
improve
make
desired
The
properties
of
as
nature's
preferred
catalysts,
such
their
high
selectivity,
diversity,
adaptability,
enable
optimal
function,
whether
single
or
multiple
reactions.
Excellent
opportunities
for
resource-efficient
manufacturing
compounds
are
provided
actions
working
reaction
cascades
pathways
within
same
space,
like
molecular
robots
along
a
production
line.
plays
increasingly
prominent
role
industrial
innovation
responsible
areas,
green
sustainable
chemistry
white
biotechnology.
Sources
inspiration
include
current
supply
chain
challenges,
treasure
enzymes,
engineer
tailor-made
enzymes.
Making
best
use
power
enzyme
is
essential
changing
products
manufactured;
renewable
biobased
replace
fossil-based
resources;
improving
safety,
health,
environmental
aspects
processes
support
cleaner
more
production.
Methodologies
for
the
synthesis
and
purification
of
metabolites,
which
have
been
developed
following
their
discovery,
analysis
structural
identification,
involved
in
numerous
life
science
milestones.
The
renewed
focus
on
small
molecule
domain
biological
cells
has
also
created
an
increasing
awareness
rising
gap
between
metabolites
identified
prepared
as
pure
compounds.
Due
to
large
number
molecular
diversity
design
engineering
resource-efficient
straightforward
synthetic
methodologies
production
attracted
much
interest.
variety
metabolic
pathways
provide
a
wonderful
blueprint
designing
simplified
routes
desired
metabolites.
Therefore,
biocatalytic
systems
become
key
enabling
tools
can
then
be
utilized
standards,
enzyme
substrates,
inhibitors
or
products,
discovery
novel
functions.
Metabolites,
Год журнала:
2023,
Номер
13(10), С. 1097 - 1097
Опубликована: Окт. 19, 2023
Methodologies
for
the
synthesis
and
purification
of
metabolites,
which
have
been
developed
following
their
discovery,
analysis,
structural
identification,
involved
in
numerous
life
science
milestones.
The
renewed
focus
on
small
molecule
domain
biological
cells
has
also
created
an
increasing
awareness
rising
gap
between
metabolites
identified
prepared
as
pure
compounds.
design
engineering
resource-efficient
straightforward
synthetic
methodologies
production
diverse
metabolite-like
compounds
attracted
much
interest.
variety
metabolic
pathways
provides
a
wonderful
blueprint
designing
simplified
routes
to
desired
metabolites.
Therefore,
biocatalytic
systems
become
key
enabling
tools
number
can
then
be
utilized
standards,
enzyme
substrates,
inhibitors,
or
other
products,
discovery
novel
functions.
Angewandte Chemie,
Год журнала:
2023,
Номер
136(8)
Опубликована: Ноя. 10, 2023
Abstract
Die
Herstellung
von
chemischen
Grundstoffen
wie
Benzol,
Toluol,
Ethylbenzol
und
Xylol
(BTEX)
aus
erneuerbaren
Ressourcen
ist
der
Schlüssel
zu
einer
nachhaltigen
Gesellschaft.
Biokatalyse
ermöglicht
die
Ein‐Topf‐Mehrschritt‐Transformation
Bioressourcen
unter
milden
Bedingungen,
jedoch
oft
auf
Biochemikalien
beschränkt.
Wir
haben
eine
nicht‐natürliche
Drei‐Enzym‐Kaskade
für
Ein‐Topf‐Umwandlung
biobasiertem
l
‐Phenylalanin
in
entwickelt.
geschwindigkeitsbestimmende
Photodecarboxylase
als
Schlüsselenzym
wurde
einem
strukturbasierten
semi‐rationalem
Engineering
unterzogen
es
Dreifachmutante
CvFAP(Y466T/P460A/G462I)
mit
6.3‐fach
höheren
Produktivität
erhalten.
Mit
dieser
verbesserten
ein
optimiertes
sequentielles
E.
coli
Zwei‐Zellsystem‐Verfahren
zur
Umwandlung
82
%
Umsatz
Kaskadenreaktion
Fermentation
integriert,
um
Ein‐Topf‐Bioproduktion
Glycerin
erreichen.
Dies
zeigt
das
Potenzial
Kaskaden‐Biokatalyse
Kombination
Enzym‐Engineering
Produktion
biobasierten
auf.