Angewandte Chemie International Edition,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 11, 2025
Abstract
Upcycling
carbon
dioxide
(CO
2
)
into
long‐chain
compounds
has
attracted
considerable
attention
with
respect
to
mitigating
environmental
problems
and
obtaining
value‐added
feedstocks,
but
remains
a
great
challenge.
Herein,
we
report
tandem
photocatalysis‐biosynthesis
strategy
for
efficient
CO
reduction
energy‐rich
sucrose
or
α‐farnesene.
Firstly,
photocatalytic
of
CH
4
was
optimized
over
the
transitional
metal
doped
ZnO
(M−ZnO).
The
as‐prepared
Ni−ZnO
preferentially
reduces
production
rate
1539.1
μmol
g
−1
h
selectivity
90
%,
owing
unique
interface
structure
(Zn
δ
+
−O−Ni
β
).
Subsequently,
Methylomicrobium
buryatense
5GB1C
genetically
engineered
produce
α‐farnesene
using
photocatalytically‐obtained
as
sole
source,
titer
96.3
43.9
mg
L
,
respectively.
This
study
provides
green,
low‐energy
pathway
synthesis
from
which
sheds
new
light
on
tackling
long‐term
energy
demands
sustainable
upcycling.
ACS Catalysis,
Journal Year:
2023,
Volume and Issue:
13(12), P. 8317 - 8329
Published: June 7, 2023
Constructing
highly
active
photocatalysts
with
rich
reactive
sites
for
photofixation
of
CO2
organic
compounds
implements
an
environmentally
friendly
route
valorization
and
carbon
neutralization.
Herein,
we
report
the
isolated
cobalt
(Co)
single-atom
(SA)-decorated
two-dimensional
(2D)
single-layer
ZnIn2S4
(ZIS)
nanosheet
composites
(Co-sZIS)
dual
centers
Co
Zn
fixation
epoxides
under
visible
light.
The
unique
ensemble
Co-sZIS
optimizes
light
harvesting,
promotes
charge
carrier
separation,
enriches
bifunctional
efficient
adsorption
activation
reactants
CO2.
Consequently,
exhibits
significantly
improved
CO2-epoxide
cycloaddition
performance
compared
to
bulk
ZIS.
In
addition,
synergetic
photoredox
manner
simultaneously
exploiting
photogenerated
electrons
holes
efficiently
facilitates
epoxides,
thereby
further
reducing
energy
barrier
fixation.
This
work
not
only
provides
a
paradigm
rationally
interfacial
engineered
SA-onto-2D
semiconductors
but
also
highlights
structure–activity
relationship
by
well-defined
in
this
SA-based
hybrid
platform.
Angewandte Chemie International Edition,
Journal Year:
2023,
Volume and Issue:
62(43)
Published: June 20, 2023
Upgrading
CO2
into
multi-carbon
(C2+)
compounds
through
the
reduction
reaction
(CO2
RR)
offers
a
practical
approach
to
mitigate
atmospheric
while
simultaneously
producing
high
value
chemicals.
The
pathways
for
C2+
production
involve
multi-step
proton-coupled
electron
transfer
(PCET)
and
C-C
coupling
processes.
By
increasing
surface
coverage
of
adsorbed
protons
(*Had
)
*CO
intermediates,
kinetics
PCET
can
be
accelerated,
thereby
promoting
production.
However,
*Had
are
competitively
intermediates
on
monocomponent
catalysts,
making
it
difficult
break
linear
scaling
relationship
between
adsorption
energies
/*CO
intermediate.
Recently,
tandem
catalysts
consisting
multicomponents
have
been
developed
improve
or
by
enhancing
water
dissociation
-to-CO
auxiliary
sites.
In
this
context,
we
provide
comprehensive
overview
design
principles
based
products.
Moreover,
development
cascade
RR
catalytic
systems
that
integrate
with
downstream
catalysis
has
expanded
range
potential
upgrading
Therefore,
also
discuss
recent
advancements
in
systems,
highlighting
challenges
perspectives
these
systems.
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
35(12)
Published: Jan. 15, 2023
CO2
utilization
and
conversion
are
of
great
importance
in
alleviating
the
rising
concentration
atmosphere.
Here,
a
single-atom
catalyst
(SAC)
is
reported
for
electrochemical
both
aqueous
aprotic
electrolytes.
Specifically,
atomically
dispersed
Mn-N4
sites
embedded
bowl-like
mesoporous
carbon
particles
with
functionalization
epoxy
groups
second
coordination
spheres.
Theoretical
calculations
suggest
that
near
site
adjust
electronic
structure
reduced
reaction
energy
barriers
electrocatalytic
reduction
to
CO.
The
resultant
Mn-single-atom
N
O
doped
(MCs-(N,O))
exhibits
extraordinary
performance
high
CO
faradaic
efficiency
94.5%,
current
density
13.7
mA
cm-2
,
low
overpotential
0.44
V
environment.
Meanwhile,
as
cathode
Li-CO2
batteries,
MCs-(N,O)
well-regulated
active
unique
morphology
optimizes
nucleation
behavior
discharge
products.
MCs-(N,O)-based
batteries
deliver
excellent
cyclic
stability
1000
h.
findings
this
work
provide
new
avenue
design
fabricate
SACs
various
systems.
ACS Catalysis,
Journal Year:
2023,
Volume and Issue:
13(10), P. 7110 - 7121
Published: May 10, 2023
CO2
(CO)
hydrogenation
presents
the
widest
route
to
synthesis
of
various
valuable
organic
molecules,
but
precise
carbon–carbon
coupling
control
targeted
products
along
with
elimination
byproducts
remains
a
challenge.
We
overcome
these
limitations
by
synthesizing
CeO2-supported
dual
Pd
site
catalyst
that
could
actively
catalyze
conversion
into
single-product
ethanol
almost
without
C1
in
continuous-flow
fixed-bed
reactor.
This
surprising
finding
is
derived
from
observation
synergistic
catalysis
between
atoms
leads
extraordinary
ability
for
cleavage
C–O
bond
*CHxOH
species
and
*CHx
*CO
species.
Furthermore,
sites
be
stabilized
through
enriching
situ
formed
water
nano
reactor
hydrophobic
shell
layer,
thus
leading
remarkably
improved
catalytic
stability
production.
As
result,
as-constructed
exhibited
superior
selectivity
at
98.7%,
corresponding
productivity
up
11.6
g
per
gram
hour
excellent
during
continuous
test
60
h.
Our
results
demonstrate
multifunctional
active
can
break
restriction
reaction
involving
single
catalyst.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
33(29)
Published: May 1, 2023
Abstract
Structural
modulation
of
graphitic
carbon
nitride
(g‐C
3
N
4
)
remains
a
major
challenge
in
rational
catalyst
design
for
artificial
photosynthesis
valuable
chemicals.
Herein,
cellulose
nanofiber
(CNF)
assisted
polymerization
is
utilized
to
prepare
1D
holey
g‐C
nanorods
(HCN)
with
nitrogen
vacancies
and
oxygen
dopants
photochemical
synthesis
lactic
acid
via
monosaccharide
photooxidation.
The
HCN
exhibits
remarkable
yield
75.5%
from
wide
assortment
sugars
such
as
hexose
(C5)
pentose
(C6),
together
an
excellent
hydrogen
production
rate
2.8
mmol
h
−1
g
.
Mechanistic
studies
confirm
the
rapid
generation
superoxide
radical
responsible
superior
activity,
enjoying
synergetic
effect
between
dopants.
This
work
provides
new
directions
green
efficient
photocatalysts
biomass
upgrading.