Nanomaterials,
Journal Year:
2024,
Volume and Issue:
14(24), P. 2024 - 2024
Published: Dec. 16, 2024
Nanomaterials,
heralded
as
the
“new
materials
of
21st
century”
for
their
remarkable
physical
and
chemical
properties
broad
application
potential,
have
attracted
substantial
attention
in
recent
years.
Among
these
materials,
which
challenge
traditional
boundaries,
nanodiamonds
(NDs)
are
widely
applied
across
diverse
industries
due
to
exceptional
surface
multifunctionality
stability.
Nevertheless,
atomic-level
manipulation
NDs
presents
considerable
challenges,
require
detailed
structural
analysis
thoroughly
elucidate
properties.
This
study
utilizes
density
functional
theory
(DFT),
lattice
dynamics,
molecular
dynamics
(MD)
simulations
analyze
property
characteristics
NDs.
Fine
reveals
that,
despite
variations
particle
size,
layer
thickness
remains
relatively
constant
at
approximately
3
Å.
DFT
methods
enable
computation
capture
subtle
electronic
characteristics,
while
internal
core
is
analyzed
via
MD.
Further
investigation
into
amorphous
structure
control
indicates
that
ND
structures
with
a
packing
coefficient
above
0.38
thermodynamically
stable.
offers
novel
approach
nanomaterial
practical
applications
by
elucidating
core–shell
interactions
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 13, 2024
Abstract
Zinc
(Zn)
emerges
as
an
ideal
anode
for
aqueous‐based
energy
storage
devices
because
of
its
safety,
non‐toxicity,
and
cost‐effectiveness.
However,
the
reversibility
zinc
anodes
is
constrained
by
unchecked
dendrite
proliferation
parasitic
side
reactions.
To
minimize
these
adverse
effects,
a
highly
oriented,
crystalline
2D
porous
fluorinated
covalent
organic
framework
(denoted
TpBD‐2F)
thin
film
in
situ
synthesized
on
Zn
protective
layer.
The
zincophilic
hydrophobic
TpBD‐2F
provides
numerous
1D
nanochannels,
which
facilitate
hopping/transfer
2+
repel
H
2
O
infiltration,
thus
regulating
flux
inhibiting
interfacial
corrosion.
resulting
enabled
stable
plating/stripping
symmetric
cells
over
1200
h
at
mA
cm
−2
.
Furthermore,
assembled
full
(Zn‐ion
capacitors)
deliver
ultra‐long
cycling
life
100
000
cycles
current
density
5
A
g
−1
,
outperforming
nearly
all
reported
materials.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 5, 2025
Abstract
The
side
reactions
and
dendritic
growth
largely
impede
the
utilization
of
Zn
anode
in
aqueous
zinc
ion
batteries
(AZIBs).
Herein,
a
novel
strong
acidic
electrolyte
additive
itaconic
acid
(IA)
is
introduced
to
achieve
highly
stable
via
dual
functions.
First,
use
trace
amounts
IA
can
provide
steady
low
pH
environment
for
electrolyte,
which
beneficial
eliminate
alkaline
by‐products
by
neutralizing
OH
−
that
accumulated
near
anode.
Second,
an
interfacial
protective
layer
be
situ
formed
cross‐linking
reduction
reaction
between
anode,
helping
inhibit
continuous
corrosion
on
promote
formation
uniform
deposition.
Consequently,
achieves
ultra‐long
cycle‐life
(5390
h
at
1
mA
cm
−2
,
mAh
)
enhanced
coulombic
efficiency
(99.86%
upon
2100
cycles
5
−1
).
Besides,
full
cell
assembled
with
sodium
vanadate
delivers
high
reversible
capacity
179.6
g
over
2000
2
A
.
This
work
offers
new
solution
related
insights
design
electrolytes
additives
toward
AZIBs.
Small,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 5, 2025
Sodium-ion
batteries
(SIBs)
have
received
much
attention
as
ideal
candidates
for
next-generation
large-scale
energy
storage
systems,
but
their
performance
significantly
deteriorates
at
low
temperatures,
limiting
application
in
cold
or
high-altitude
environments.
This
work
presents
an
easier
approach
to
improving
low-temperature
by
incorporating
nanodiamonds
(NDs)
into
hard
carbon
anodes
derived
from
cattail
grass.
The
modified
anode
shows
a
larger
specific
surface
area,
offering
more
active
sites
Na+.
After
90
cycles
0.1
A
g-1,
the
reversible
capacity
of
reaches
365.1
mA
h
g-1
room
temperature
and
remains
245.1
-40
°C.
Even
under
high
current
density
1.0
it
delivered
108.2
after
500
with
retention
rate
90%.
improved
is
attributed
introduced
NDs
SIBs,
which
crease
number
sites,
reduce
charge
transfer
resistance,
lower
activation
energy,
effectively
inhibit
formation
Na
dendrites.
potential
pathway
designing
efficient
stable
materials
SIBs
temperatures.
Nanoscale Advances,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Nanodiamonds
synthesized
by
the
bottom-up
method
under
high
pressure
and
temperature
(BU_HPHT)
show
a
transition
in
properties
morphology
at
approximately
2
nm.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 30, 2025
Abstract
Achieving
stable
zinc‐metal
anodes
is
pivotal
to
realizing
high‐performance
aqueous
batteries
(AZMBs).
The
construction
of
a
functional
polymer
interface
layer
on
the
anode
surface
confirmed
as
an
effective
strategy
for
mitigating
dendrite
growth
and
side
reactions,
thereby
significantly
enhancing
stability
anode.
However,
polymers
capable
withstanding
electrolyte
environments
over
long
term
typically
suffer
from
elevated
interfacial
impedance,
which
hinders
Zn
2+
transport.
Here,
pioneering
enabled
by
with
high‐efficiency
ion
transport
introduced.
This
polymerized
in
situ
through
innovative
redox
initiation
system,
where
zinc
trifluoromethanesulfonate
(Zn(OTf)
2
)
salts
function
both
reductant
pre‐pathways,
ensuring
resultant
achieves
ideal
balance
ionic
conductivity,
water
resistance,
adhesion,
mechanical
properties,
effectively
suppressing
reactions.
Symmetric
cells
assembled
this
deliver
impressive
lifespan
8800
1600
h
under
1
5
mA
cm
−2
,
respectively.
further
demonstrates
exceptional
feasibility
versatility
Zn‐NVO
Zn‐PANI
batteries.
work
provides
groundbreaking
insights
into
strategic
design
layers
AZMBs.
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 8, 2025
The
longevity
of
aqueous
batteries
after
scaling
up
is
largely
restricted
by
metal
anodes
(Zn,
Al,
and
Mg).
Parasitic
reactions
uncontrolled
dendrites
dominate
failure
modes,
especially
at
high
current
densities.
To
fully
improve
its
reversibility,
tailored
surface
chemistry
well-designed
ion
transport
channels
are
simultaneously
demanded.
Here,
inspired
the
reticulated
structure
sea
urchin
shell,
an
aligned
porous
coating
assembled
from
graphene
oxide
sodium
alginate
anchored
on
zinc
anodes,
termed
a
unidirectional
sieve.
As
revealed
multiscale
modeling
tests,
this
biomimetic
layer
produces
area,
creating
low-tortuosity
that
greatly
enhance
kinetics
uniform
distribution
ions.
introduction
ion-conductive
natural
polymer
enables
well-tuned
hydration
selectivity,
alleviating
side
reactions.
With
structural-functional
integrity
design,
decorated
symmetrical
cell
presents
reversible
cycling
for
1600
h,
with
reduced
nucleation
potential
21
mV
Coulombic
efficiency.
Aided
Distribution
Relaxation
Time
tool,
different
electrochemical
processes
deconvoluted
to
understand
respective
mechanisms,
thereby
providing
referable
strategy
product
scaling.
In
end,
7Ah
Zn||VO2
pouch
demonstrates
stable
over
500
cycles
1
A·g-1,
capacity
retention
90%.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 23, 2024
Abstract
Rechargeable
aqueous
zinc‐ion
batteries
(AZIBs)
are
considered
to
be
one
of
the
most
promising
devices
in
next
generation
energy
storage
systems.
However,
uncontrolled
growth
Zn
dendrites
during
electroplating
leads
rapid
battery
failure,
which
hinders
wide
application
AZIBs.
In
this
work,
an
Fe
metal
interface
(FMI)
with
electric
field
regulation
is
designed
on
anode
using
a
magnetron
sputtering
technology.
The
FMI
layer
nanosheet
array
not
only
uniforms
surface
field,
but
also
adjusts
2+
ion
distribution
inhibit
2D
diffusion.
strong
orientation
relationships
enhance
reversibility
plating/stripping,
improving
structural
stability
layer.
Consequently,
FMI@Zn
symmetric
cell
exhibits
ultra‐stable
lifespan
for
over
6000
h
(Cumulative
plated
capacity,
CPC
=
15
Ah
cm
−2
)
low
voltage
hysteresis
46.4
mV
and
high
Coulombic
efficiency
99.8%
at
5
mA
.
Even
large
current
density
40
,
reaches
19.7
proposed
strategy
reveals
prospect
designing
highly
stable
anode,
applies
other
anodes
Chemical Science,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Parasitic
side
reactions
and
the
formation
of
zinc
dendrites
in
aqueous
solutions
severely
hinder
practical
application
Zn
metal
anodes.
Carbon
materials
with
high
electrical
conductivity
mechanical
robustness
are
promising
protective
for
However,
zincophobic
nature
carbon
impedes
cycling
stability
zinc-ion
batteries.
Herein,
a
versatile
design
strategy
is
proposed
utilizing
doped
single
atoms
atomically
dispersed
zincophilic
sites
as
multi-functional
material
high-performance
Taking
bismuth-single-atom-doped
(Bi
SAs)
an
example,
density
functional
calculations
verify
that
introduction
bismuth
can
enhance
zincophilicity,
promote
robust
adhesion
to
foil,
effectively
suppress
hydrogen
evolution.
Guided
by
theoretical
calculations,
Bi
single-atom-doped
nanobelts
synthesized
employed
stabilize
As
expected,
due
atomic-level
sites,
hydrophobicity,
enhanced
ionic
conductivity,
SAs@Zn
anode
demonstrates
over
4200
h
600
reversible
at
5
mA
cm
Chemical Science,
Journal Year:
2024,
Volume and Issue:
15(39), P. 16118 - 16124
Published: Jan. 1, 2024
A
stable
Zn
anode
is
realized
by
using
triethanolamine
as
the
electrolyte
additive
to
construct
a
hybrid
SEI
layer
composed
of
static
and
dynamic
layer,
which
effectively
inhibits
dendrite
growth
side
reactions.