Energy Material Advances,
Journal Year:
2021,
Volume and Issue:
2021
Published: Jan. 1, 2021
Developing
post-lithium-ion
battery
technology
featured
with
high
raw
material
abundance
and
low
cost
is
extremely
important
for
the
large-scale
energy
storage
applications,
especially
metal-based
systems
such
as
aluminum,
sodium,
magnesium
ion
batteries.
However,
their
developments
are
still
in
early
stages,
one
of
major
challenges
to
explore
a
safe
reliable
electrolyte.
An
ionic
liquid-based
electrolyte
attractive
promising
developing
nonflammable
devices
wide
temperature
ranges
owing
several
unique
properties
ultralow
volatility,
conductivity,
good
thermal
stability,
flammability,
electrochemical
window,
tunable
polarity
basicity/acidity.
In
this
review,
recent
emerging
limitations
strategies
electrolytes
above
summarized.
particular,
aluminum-ion
batteries,
interfacial
reaction
between
electrode,
mechanism
aluminum
storage,
optimization
composition
fully
discussed.
Moreover,
solve
problems
corrosion
system
side
reactions
also
highlighted.
Finally,
general
conclusion
perspective
focusing
on
current
development
directions
proposed
along
an
outlook.
order
develop
novel
high-performance
liquid
electrolytes,
we
need
in-depth
understanding
research
fundamentals,
paving
way
designing
next-generation
products.
Chemical Reviews,
Journal Year:
2020,
Volume and Issue:
121(3), P. 1623 - 1669
Published: Dec. 24, 2020
The
tremendous
improvement
in
performance
and
cost
of
lithium-ion
batteries
(LIBs)
have
made
them
the
technology
choice
for
electrical
energy
storage.
While
established
battery
chemistries
cell
architectures
Li-ion
achieve
good
power
density,
LIBs
are
unlikely
to
meet
all
performance,
cost,
scaling
targets
required
storage,
particular,
large-scale
applications
such
as
electrified
transportation
grids.
demand
further
reduce
and/or
increase
well
growing
concern
related
natural
resource
needs
accelerated
investigation
so-called
"beyond
Li-ion"
technologies.
In
this
review,
we
will
discuss
recent
achievements,
challenges,
opportunities
four
important
technologies:
Na-ion
batteries,
K-ion
all-solid-state
multivalent
batteries.
fundamental
science
behind
potential
solutions
toward
goals
a
low-cost
high-energy-density
future,
discussed
detail
each
technology.
it
is
that
any
given
new
fully
replace
near
technologies
should
be
thought
storage
grow
into
mid/large-scale
applications.
Chemical Reviews,
Journal Year:
2020,
Volume and Issue:
120(14), P. 6490 - 6557
Published: March 24, 2020
As
the
world
moves
toward
electromobility
and
a
concomitant
decarbonization
of
its
electrical
supply,
modern
society
is
also
entering
so-called
fourth
industrial
revolution
marked
by
boom
electronic
devices
digital
technologies.
Consequently,
battery
demand
has
exploded
along
with
need
for
ores
metals
to
fabricate
them.
Starting
from
such
critical
analysis
integrating
robust
structural
data,
this
review
aims
at
pointing
out
there
room
promote
organic-based
electrochemical
energy
storage.
Combined
recycling
solutions,
redox-active
organic
species
could
decrease
pressure
on
inorganic
compounds
offer
valid
options
in
terms
environmental
footprint
possible
disruptive
chemistries
meet
storage
needs
both
today
tomorrow.
We
state-of-the-art
developments
batteries,
current
challenges,
prospects,
we
discuss
fundamental
principles
that
govern
reversible
chemistry
structures.
provide
comprehensive
overview
all
reported
cell
configurations
involve
electroactive
working
either
solid
state
or
solution
aqueous
nonaqueous
electrolytes.
These
include
alkali
(Li/Na/K)
multivalent
(Mg,
Zn)-based
electrolytes
conventional
"sealed"
batteries
redox-flow
systems.
highlight
most
promising
systems
based
various
relying
appropriate
metrics
as
operation
voltage,
specific
capacity,
energy,
cycle
life
assess
performances
electrodes.
ACS Energy Letters,
Journal Year:
2021,
Volume and Issue:
6(3), P. 1015 - 1033
Published: Feb. 16, 2021
With
the
increasing
demand
for
large-scale
energy
storage,
high-safety
and
low-cost
rechargeable
zinc-ion
batteries
(ZIBs)
have
been
regarded
as
potential
substitutes
lithium-ion
(LIBs).
Exploring
high-performance
cathodes
a
stable
zinc
anode
is
important,
fruitful
achievements
made.
However,
many
fundamental
issues
still
hinder
development
of
zinc-based
storage
systems.
As
pivotal
component,
electrolyte
provides
basic
operating
environment
to
ensure
high
compatibility
reversible
cycling
each
component
in
battery.
In
this
Focus
Review,
we
present
comprehensive
overview
strategies
terms
solving
or
alleviating
cathode
dissolution,
dendrites
corrosion,
hydrogen
evolution,
so
on.
Furthermore,
adoption
gel
electrolytes
flexible
briefly
introduced.
Finally,
recommended
future
research
perspectives
are
discussed,
which
may
boost
field.
Advanced Energy Materials,
Journal Year:
2020,
Volume and Issue:
10(19)
Published: April 2, 2020
Abstract
Covalent–organic
frameworks
(COFs),
featuring
structural
diversity,
framework
tunability
and
functional
versatility,
have
emerged
as
promising
organic
electrode
materials
for
rechargeable
batteries
garnered
tremendous
attention
in
recent
years.
The
adjustable
pore
configuration,
coupled
with
the
functionalization
of
through
pre‐
post‐synthesis
strategies,
enables
a
precise
customization
COFs,
which
provides
novel
perspective
to
deepen
understanding
fundamental
problems
materials.
In
this
review,
summary
research
into
COFs
including
lithium‐ion
batteries,
sodium‐ion
potassium‐ion
aqueous
zinc
is
provided.
addition,
review
will
also
cover
working
principles,
advantages
challenges,
strategies
improve
electrochemical
performance,
applications
batteries.
National Science Review,
Journal Year:
2020,
Volume and Issue:
unknown
Published: Aug. 5, 2020
Abstract
Sodium-based
dual-ion
batteries
(Na-DIBs)
show
a
promising
potential
for
large-scale
energy
storage
applications
due
to
the
merits
of
environmental
friendliness
and
low
cost.
However,
Na-DIBs
are
generally
subject
poor
rate
capability
cycling
stability
lack
suitable
anodes
accommodate
large
Na+
ions.
Herein,
we
propose
molecular
grafting
strategy
in
situ
synthesize
tin
pyrophosphate
nanodots
implanted
N-doped
carbon
matrix
(SnP2O7@N-C),
which
exhibits
high
fraction
active
SnP2O7
up
95.6
wt%
content
(4.4
wt%)
as
conductive
framework.
As
result,
this
anode
delivers
specific
capacity
∼400
mAh
g−1
at
0.1
A
g−1,
excellent
5.0
with
retention
92%
after
1200
cycles
under
current
density
1.5
g−1.
Further,
pairing
an
environmentally
friendly
KS6
graphite
cathode
yields
SnP2O7@N-C||KS6
Na-DIB,
exhibiting
30
C,
good
fast-charge/slow-discharge
performance
long-term
life
∼96%
1000
20
C.
This
study
provides
feasible
develop
high-performance
high-fraction
materials
Na-based
applications.
Small Methods,
Journal Year:
2020,
Volume and Issue:
4(7)
Published: April 6, 2020
Abstract
Research
and
development
of
advanced
rechargeable
battery
technologies
is
dominated
by
application‐specific
targets,
which
predominantly
focus
on
cost
performance
including
high
gravimetric
energy,
volumetric
related
power
densities,
while
ensuring
a
safety
long
lifetime.
The
need
for
high‐performance
low‐cost
batteries
driven
the
growing
market
electromobility,
in
order
to
fulfill
key
requirements,
such
as
sufficient
driving
range
fast
charging
ability,
achieving
broad
consumer
acceptance.
Currently,
lithium
ion
(LIB)
one
state‐of‐the‐art
able
meet
most
these
requirements
at
reasonable
cost.
In
addition
costs,
environmental
impact,
i.e.,
sustainability
particular
cell
over
whole
life
cycle—i.e.,
from
raw
material
extraction
production,
pack
utilization,
possibilities
second
usage
recycling—does
receive
continuously
increasing
attention.
Within
this
review,
different
approaches
“greener”
are
introduced
with
view
complete
cycle,
focusing
LIB
technology.
Moreover,
alternative
critically
evaluated
regarding
their
aspects
competitiveness.
Advanced Functional Materials,
Journal Year:
2020,
Volume and Issue:
30(41)
Published: April 3, 2020
Abstract
Graphene
and
graphene
oxide
(GO),
as
wonder
materials,
have
penetrated
nearly
every
field
of
research.
One
their
most
attractive
features
is
the
functionality
assembly
or
GO,
in
which
they
can
be
considered
to
chemically
functionalized
building
blocks
for
creating
unconventional
porous
materials
(PGMs)
that
not
only
combine
merits
both
graphene,
but
also
major
advantages
over
other
carbons
specific
applications.
The
chemistry
approaches
functionalizing
GO
are
first
introduced,
typical
procedures
pore
creation
(e.g.,
in‐plane
pores,
2D
laminar
3D
interconnected
assemblies),
self‐assembly,
tailoring
mechanisms
PGMs
highlight
significance
precise
control
morphology
size
summarized.
Because
unique
structures,
with
different
morphologies
intriguing
properties,
serve
key
components
a
variety
applications
such
energy
storage,
electrocatalysis,
molecular
separation.
Finally,
challenges
relating
from
understanding
chemical
self‐assembly
discussed,
promising
solutions
on
how
tackle
them
presented.
This
provides
an
insightful
outlook
future
development
PGMs.
Journal of the American Chemical Society,
Journal Year:
2019,
Volume and Issue:
141(37), P. 14764 - 14771
Published: Aug. 30, 2019
Constructing
ordered
hierarchical
porous
structures
while
maintaining
their
overall
crystalline
order
is
highly
desirable
but
remains
an
arduous
challenge.
Herein,
we
successfully
achieve
the
growth
of
single-crystalline
metal-organic
frameworks
(MOFs)
in
three-dimensional
(3D)
macroporous
template
voids
by
a
saturated
solution-based
double-solvent-assisted
strategy
with
precise
control
over
nucleation
process.
The
as-prepared
macro-microporous
Co-based
MOFs
(SOM
ZIF-67)
exhibit
structure
robust
nature.
Moreover,
SOM
ZIF-67
can
serve
as
precursor
to
derive
3D-ordered
cobalt
diselenide@carbon
(3DOM
CoSe2@C)
through
facile
carbonization-selenization
treatment.
as-derived
3DOM
CoSe2@C
well
preserve
precursor.
More
importantly,
CoSe2
nanoparticles
could
be
uniformly
confined
conductive
carbon
framework,
affording
regularly
interconnected
channels
and
large
surface
area.
As
result,
when
evaluated
cathode
material
for
aluminum-ion
batteries,
not
only
effectively
facilitate
diffusion
large-sized
chloroaluminate
anions
also
increase
contact
area
electrolyte
provide
more
exposed
active
sites,
thereby
exhibiting
superior
reversible
rate
capacity
(86
mA
h
g-1
at
5.0
A
g-1)
remarkable
cycling
performance
(125
after
1000
cycles
2.0
g-1).
Journal of the American Chemical Society,
Journal Year:
2020,
Volume and Issue:
142(36), P. 15295 - 15304
Published: Aug. 11, 2020
Aqueous
Al-ion
batteries
(AAIBs)
are
the
subject
of
great
interest
due
to
inherent
safety
and
high
theoretical
capacity
aluminum.
The
abundancy
easy
accessibility
aluminum
raw
materials
further
make
AAIBs
appealing
for
grid-scale
energy
storage.
However,
passivating
oxide
film
formation
hydrogen
side
reactions
at
anode
as
well
limited
availability
cathode
lead
low
discharge
voltage
poor
cycling
stability.
Here,
we
proposed
a
new
AAIB
system
consisting
an
AlxMnO2
cathode,
zinc
substrate-supported
Zn-Al
alloy
anode,
Al(OTF)3
aqueous
electrolyte.
Through
in
situ
electrochemical
activation
MnO,
was
synthesized
incorporate
two-electron
reaction,
thus
enabling
its
capacity.
realized
by
simple
deposition
process
Al3+
onto
Zn
foil
substrate.
featured
interface
layer
can
effectively
alleviate
passivation
suppress
dendrite
growth,
ensuring
ultralong-term
stable
stripping/plating.
architected
cell
delivers
record-high
plateau
near
1.6
V
specific
460
mAh
g-1
over
80
cycles.
This
work
provides
opportunities
development
high-performance
low-cost
practical
applications.