Highlights in Science Engineering and Technology,
Journal Year:
2024,
Volume and Issue:
121, P. 22 - 30
Published: Dec. 24, 2024
The
considerable
demand
for
renewable
energy
sources
and
the
mounting
concern
about
environmental
pollution
has
created
a
new
development
opportunity
in
field
of
secondary
batteries,
which
can
store
chemical
place
electrical
energy.
In
2010s,
attention
was
drawn
to
sodium
batteries.
A
sodium-ion
battery
(SIB)
is
specific
kind
that
be
recharged,
given
plentiful
element
on
Earth
more
stable
than
lithium
Consequently,
there
been
growing
body
research
activity
this
field.
This
article
will
describe
electrolytes
SIBs,
significantly
contribute
electrochemical
safety
characteristics
SIBs.
discussed
include
liquid
electrolyte,
solid
solid-liquid
composite
electrolyte.
most
common
use
an
organic
solvent
comprises
salt
(NaPF6
or
NaClO4)
carbonate.
electrolyte
successfully
matched
with
range
anodes
cathodes,
resulting
satisfactory
overall
performance.
Nevertheless,
obvious
drawback
corroding
metal
electrodes
over
extended
periods
potential
concerns.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(35)
Published: May 29, 2024
Sodium-ion
batteries
(NIBs)
have
recently
garnered
significant
interest
in
being
employed
alongside
conventional
lithium-ion
batteries,
particularly
applications
where
cost
and
sustainability
are
relevant.
The
rapid
progress
NIBs
will
undoubtedly
expedite
the
commercialization
process.
In
this
regard,
tailoring
designing
electrolyte
formulation
is
a
top
priority,
as
they
profoundly
influence
overall
electrochemical
performance
thermal,
mechanical,
dimensional
stability.
Moreover,
electrolytes
play
critical
role
determining
system's
safety
level
lifespan.
This
review
delves
into
recent
advancements
from
liquid
(organic
ionic
liquid)
to
solid
quasi-solid
(dry,
hybrid,
single
ion
conducting
electrolyte)
for
NIBs,
encompassing
comprehensive
strategies
design
across
various
materials,
systems,
their
functional
applications.
objective
offer
strategic
direction
systematic
production
of
safe
investigate
potential
these
designs
real-world
scenarios
while
thoroughly
assessing
current
obstacles
forthcoming
prospects
within
rapidly
evolving
field.
ACS Catalysis,
Journal Year:
2024,
Volume and Issue:
14(3), P. 1773 - 1784
Published: Jan. 18, 2024
Room-temperature
ionic
liquids
(RTIL)
are
important
alternatives
to
aqueous
electrolytes
in
electrocatalytic
reactions,
batteries,
and
fuel
cells.
They
known
reduce
existing
high
overpotentials
increase
CO2
solubility
as
well
product
selectivity
reduction
reactions
(CO2RR).
In
our
work,
we
have
studied
the
activity
for
CO2RR
of
Au(111),
Cu(111),
Cu-modified
Au(111)
electrodes
with
1/3,
2/3,
3/3
Cu
monolayers,
AuCu
AuCu3
intermetallics
contact
1-butyl-3-methylimidazolium
bis(trifluoromethylsulfonyl)imide
[BMIM][NTf2]
1.5
M
H2O.
Using
offline
gas
chromatography
(GC),
demonstrate
formation
H2
mainly
CO
only
products
at
while
exclusively
is
formed
Cu(111).
Synergistic
electronic
geometric
effects
lead
higher
levels
comparison
neat
Au(111).
Operando
IR
absorption
spectroscopy
(IRAS)
bulk
electrolyte
shows
a
2-imidazolium
carboxylic
acid
intermediate
that
can
lower
overpotential
does
not
require
stabilization
CO2–
radical
anion
an
alternative
interface.
Systematic
variation
copper
content
catalysts'
surfaces
enables
us
adjust
H2/CO
syngas
ratio
maximum
1.8
∼3.2
catalysts
electrolysis
times
20
min,
demonstrating
large
tunability
electrode
potential.
The
observed
range
ratios
includes
ideal
2
Fischer–Tropsch
process
produce
hydrocarbons
3
needed
methanation.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Feb. 6, 2024
Fluoride-based
solid
electrolytes
(SEs)
have
emerged
as
a
promising
component
for
high-energy-density
rechargeable
solid-state
batteries
(SSBs)
in
view
of
their
wide
electrochemical
window,
high
air
stability,
and
interface
compatibility,
but
they
still
face
the
challenge
low
ion
conductivity
lack
desired
structure
sodium
metal
SSBs.
Here,
we
report
sodium-rich
heterostructure
fluoride
SE,
Na3GaF6–Ga2O3–NaCl
(NGFOC-G),
synthesized
via
situ
oxidation
liquid
gallium
chlorination
using
low-melting
GaCl3.
The
distinctive
features
NGFOC-G
include
single-crystal
Na3GaF6
domains
within
an
open-framework
structure,
composite
decoration
Ga2O3
NaCl
with
concentration
gradient,
exceptional
stability.
By
leveraging
penetration
at
NaF
grain
boundaries
self-oxidation
to
form
nanodomains,
solid-phase
reaction
kinetics
GaF3
is
activated
facilitating
synthesis
main
Na3GaF6.
introduction
small
amount
chlorine
source
during
further
softens
modifies
along
Ga2O3.
Benefiting
from
enhanced
transport,
optimized
exhibits
ionic
up
10–4
S/cm
40
°C,
which
highest
level
reported
among
fluoride-based
sodium-ion
SEs.
This
SE
demonstrates
"self-protection"
mechanism,
where
formation
Young's
modulus
transition
layer
rich
Na2O
under
driving
prevents
dendrite
growth
metal.
corresponding
Na/Na
symmetric
cells
show
minimal
voltage
hysteresis
stable
cycling
performance
least
1000
h.
Na/NGFOC-G/Na3V2(PO4)3
cell
capacity
release
around
100
mAh/g
room
temperature.
Na/NGFOC-G/FeF3
delivers
461
excellent
stability
conversion
cycling.
Energy Materials,
Journal Year:
2024,
Volume and Issue:
4(6)
Published: July 12, 2024
Sodium-ion
batteries
(SIBs)
are
close
to
commercialization.
Although
alloying
anodes
have
potential
use
in
next-generation
SIB
anodes,
their
limitations
of
low
capacities
and
colossal
volume
expansions
must
be
resolved.
Traditional
approaches
involving
structural
compositional
tunings
not
been
able
break
these
lofty
barriers.
This
review
is
devoted
recent
progress
research
on
alloy-based
comprising
Sn,
Sb,
P,
Ge,
Si.
The
current
level
understanding,
challenges,
modifications,
optimizations
employed
up
date,
shortfalls
faced
by
also
described.
A
detailed
future
outlook
proposed,
focusing
advanced
nanomaterial
tailoring
methods
component
modifications
fabrication.
Utilizing
the
latest
state-of-the-art
characterization
techniques,
including
ex-situ
operando
tools,
can
help
us
better
understand
(de)sodiation
mechanism
accompanying
capacity
fading
pathways
pave
way
for
SIBs
with
anode
materials.
ChemElectroChem,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 9, 2025
Abstract
Sodium‐ion
batteries
(SIBs)
are
an
emerging
next‐generation
technology
for
sustainable
energy
storage.
In
this
study,
the
synthesis
and
performance
of
carbon
anode
materials
SIBs,
produced
via
direct
co‐carbonisation
textile
waste‐derived
hard
(HC)
pitch‐derived
soft
(SC)
at
various
ratios,
were
investigated.
It
was
found
that,
as
ratio
HC
increased,
rate
capacity
composite
improved,
with
best
performing
exhibiting
a
specific
334
mAh
g
−1
current
density
50
mA
which
exceeded
100
%HC
%SC.
The
co
carbonisation
SC
is
critical
to
ensure
stabilisation
pitch
in
new
anode.
A
detailed
examination
morphology,
microstructure
electrochemical
properties
reported
here.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 17, 2025
Abstract
Lithium‐ion
batteries
(LIBs)
have
been
widely
adopted
in
the
automotive
industry,
with
an
annual
global
production
exceeding
1000
GWh.
Despite
their
success,
escalating
demand
for
LIBs
has
created
concerns
on
supply
chain
issues
related
to
key
elements,
such
as
lithium,
cobalt,
and
nickel.
Sodium‐ion
(SIBs)
are
emerging
a
promising
alternative
due
high
abundance
low
cost
of
sodium
other
raw
materials.
Nevertheless,
commercialization
SIBs,
particularly
grid
storage
applications,
faces
significant
hurdles.
This
perspective
article
aims
identify
critical
challenges
making
SIBs
viable
from
both
chemical
techno‐economic
perspectives.
First,
brief
comparison
materials
chemistry,
working
mechanisms,
between
mainstream
LIB
systems
prospective
SIB
is
provided.
The
intrinsic
regarding
stability,
capacity
utilization,
cycle
calendar
life,
safe
operation
cathode,
electrolyte,
anode
discussed.
Furthermore,
scalability
material
production,
engineering
feasibility,
energy‐dense
electrode
design
fabrication
illustrated.
Finally,
pathways
listed
discussed
toward
achieving
high‐energy‐density,
stable,
cost‐effective
SIBs.
Batteries,
Journal Year:
2025,
Volume and Issue:
11(4), P. 147 - 147
Published: April 9, 2025
This
review
aims
to
provide
an
up-to-date
report
on
the
state
of
art
electrolytes
based
(quasi-)ionic
liquids
for
sodium
batteries.
Electrolytes
conventional
ionic
are
classified
into
one-anion-
and
two-anion-type
according
number
different
anions
present
in
media.
Their
application
sodium-based
batteries
is
revised,
potential
advantages
highlighted
rationalized
higher
tunability
interactions
among
electrolyte
components
enabled
by
presence
two
anionic
species.
Next,
synthesis
properties
liquid
ammonia
solvates
(aka
ammoniates)
presented,
with
a
focus
their
use
as
alternative
electrolytes.
Attention
paid
some
outstanding
ammoniates,
notably,
high
conductivity
concentrations,
together
ability
sustain
dendrite-free
deposition,
not
only
but
also
copper
collectors.
Finally,
prospects
limitations
these
development
new
batteries,
including
anode-less
devices,
discussed.
Deleted Journal,
Journal Year:
2025,
Volume and Issue:
3(1), P. 2951 - 2951
Published: April 10, 2025
Sodium-ion
(Na-ion)
batteries
are
becoming
more
popular
as
a
budget-friendly
and
eco-friendly
substitute
for
lithium-ion
batteries,
thanks
to
the
plentiful
supply
of
sodium
its
reduced
raw
material
expenses.
Recent
developments
in
sodium-ion
battery
research
have
concentrated
on
enhancing
performance
crucial
elements
such
cathodes,
anodes,
electrolytes.
Important
advancements
been
achieved
creation
high-capacity
including
layered
transition
metal
oxides,
Prussian
blue
analogs,
polyanionic
compounds,
well
anode
materials
like
hard
carbon
alloy-based
compounds.
Research
electrolytes,
solid-state
ionic
liquid
options,
aims
improve
conductivity,
cycle
stability,
prevent
issues
dendrite
formation.
Although
generally
lower
energy
density
compared
lithium-based
they
exhibit
significant
potential
large-scale
uses
grid
storage,
where
cost
life
important
than
density.
This
review
highlights
recent
breakthroughs
Na-ion
technology
discusses
growing
prospects
commercialization
near
future.