Results in Engineering,
Journal Year:
2024,
Volume and Issue:
23, P. 102536 - 102536
Published: July 9, 2024
Carbon
capture
and
utilization
(CCU)
stands
as
a
pioneering
solution
to
counter
greenhouse
gas
emissions
linked
fossil
fuel
consumption.
Research
in
the
of
CO2
with
sodium-rich
sources,
particularly
industrial
waste,
for
synthesis
sodium
bicarbonate
(NaHCO3)
has
made
significant
progress.
Despite
potential
benefits,
challenges
such
sluggish
reaction
kinetics,
solvent
evaporation,
product
purity
concerns,
generation
secondary
waste
have
hindered
widespread
commercial
adoption
this
process.
This
comprehensive
review
delves
into
various
carbonation
pathways
used
conversion
CO2,
focusing
on
advanced
modification
technologies
that
offer
viable
solutions
enhance
efficiency
economic
viability
The
study
meticulously
explores
different
methods
employed
synthesis,
encompassing
soda
ash
carbonation,
Solvay
process,
ammonia
sulfate,
hydroxide,
electrochemical
CO2.
essential
chemical
reactions,
crucial
precipitation
parameters,
simulation
modelling
endeavors
aimed
at
upscale
implementation
associated
each
method
are
thoroughly
discussed.
incorporation
process
mass
transfer
intensification
approaches
can
unlocking
sustainable
CCU
Over
all,
aims
shed
light
existing
constraints
pave
way
future
innovation
effective
strategies
field
carbon
utilization.
Accounts of Chemical Research,
Journal Year:
2023,
Volume and Issue:
56(22), P. 3153 - 3164
Published: Nov. 10, 2023
ConspectusThe
rising
levels
of
atmospheric
CO2
and
their
resulting
impacts
on
the
climate
have
necessitated
urgent
development
effective
carbon
capture
technologies.
Electrochemical
systems
emerged
as
a
potential
alternative
to
conventional
thermal
based
amine
solutions
due
modularity,
energy
efficiency,
lower
environmental
impact.
Among
these,
aqueous
electrochemical
pH
swing
that
capitalize
dependence
dissolved
inorganic
(CO2/HCO3–/CO32–)
speciation
release
are
particular
interest
they
can
be
flexible
in
system
design
range
potentials
used
well
being
environmentally
benign.
In
this
Account,
we
present
our
recent
findings
swing-based
using
redox-active
materials,
paving
way
toward
sustainable
solution
for
mitigating
emissions.In
first
section,
discuss
utilization
molecular
organic
materials
by
method.
This
configuration
involves
homogeneous
electrolytes
containing
compounds
combined
with
inert
carbon-based
electrodes.
We
oxygen-insensitive
neutral
red
(NR)-based
systems.
Notably,
discovery
1-aminopyridinium
(1-AP)
an
electrochemically
reversible
compound
enables
efficient
swing,
leading
impressive
electron
1.25
mol
per
mole
electrons.
Additionally,
explore
red/leuconeutral
(NR/NRH2)
redox
system,
which
demonstrates
applicability
direct
air
(DAC)
ambient
feed
gas.The
second
section
focuses
nanomaterials
electrodes
capture.
configuration,
employ
inducing
swings
without
interrupting
other
ionic
species,
except
protons.
Specifically,
effectiveness
manganese
oxide
(MnO2)
achieving
selective
removal
from
simulated
flue
gas.
then
demonstrate
bismuth/silver
(Bi/BiOCl,
Ag/AgCl)
nanoparticle
electrode
sodium-insensitive
extracting
(DIC)
seawater
high
efficiency.Overall,
these
advances
offer
promising
preliminary
combating
change
capturing
dilute
sources
such
gas
enabling
ocean
water.
While
demonstrated
efficiency
benefits
represent
only
beginning
research
journey.
Further
optimization
currently
underway
strive
unlock
full
large-scale
implementation,
carbon-neutral
future.
ACS Sustainable Chemistry & Engineering,
Journal Year:
2024,
Volume and Issue:
12(11), P. 4444 - 4455
Published: March 7, 2024
The
utilization
of
carbonic
anhydrases
(CAs)
for
CO2
capture
aligns
with
the
principles
environmental
sustainability.
However,
there
is
an
urgent
need
to
minimize
cost
CA
purification
while
improving
their
performance
in
harsh
environments.
A
novel
strategy
was
proposed
solve
above
problems
by
employing
ferritin-tagged
variant
(DvCA8.0-F).
achieved
low-speed
centrifugation,
yielding
92%
activity
recovery
and
95%
purity.
After
14
weeks
incubation
a
50%
MDEA
solution
at
50
°C,
DvCA8.0-F
maintained
nearly
equivalent
initial
activity,
which
showed
remarkable
stability
compared
free
ones.
Encouragingly,
had
yield
up
800
mg/L,
allowing
cost-effective
CA-assisted
absorption
desorption
solutions.
results
show
that
reduced
time
from
70
min
40
°C
25
96
25%MDEA+1%[N1111][Gly]
final
load
stripped
amount
same
time.
exhibits
maximum
reaction
rate
°C;
regeneration
efficiency
improved
60%
87
72%.
When
concentration
1.5
g/L,
reached
about
90%
25%
MEA
solution.
These
demonstrate
simplicity
preparation
outstanding
properties
DvCA8.0-F,
paves
feasible
way
capture.
This
exciting
may
also
have
excellent
potential
enzymes
innovative
chemical
synthesis
achieve
sustainable
development
green
chemistry.
Results in Engineering,
Journal Year:
2024,
Volume and Issue:
23, P. 102536 - 102536
Published: July 9, 2024
Carbon
capture
and
utilization
(CCU)
stands
as
a
pioneering
solution
to
counter
greenhouse
gas
emissions
linked
fossil
fuel
consumption.
Research
in
the
of
CO2
with
sodium-rich
sources,
particularly
industrial
waste,
for
synthesis
sodium
bicarbonate
(NaHCO3)
has
made
significant
progress.
Despite
potential
benefits,
challenges
such
sluggish
reaction
kinetics,
solvent
evaporation,
product
purity
concerns,
generation
secondary
waste
have
hindered
widespread
commercial
adoption
this
process.
This
comprehensive
review
delves
into
various
carbonation
pathways
used
conversion
CO2,
focusing
on
advanced
modification
technologies
that
offer
viable
solutions
enhance
efficiency
economic
viability
The
study
meticulously
explores
different
methods
employed
synthesis,
encompassing
soda
ash
carbonation,
Solvay
process,
ammonia
sulfate,
hydroxide,
electrochemical
CO2.
essential
chemical
reactions,
crucial
precipitation
parameters,
simulation
modelling
endeavors
aimed
at
upscale
implementation
associated
each
method
are
thoroughly
discussed.
incorporation
process
mass
transfer
intensification
approaches
can
unlocking
sustainable
CCU
Over
all,
aims
shed
light
existing
constraints
pave
way
future
innovation
effective
strategies
field
carbon
utilization.