Korosi
logam
didukung
oleh
sejumlah
variabel,
termasuk
reaktivitas
mereka,
kehadiran
kontaminan,
pH
dan
suhu
larutan,
teknik
industry
Seperti
pengasapan,
pembersihan
asam,
pemotongan,
desalinasi,
sebagainya
[14].
Untuk
melawan
korosi,
beberapa
metode
telah
diterapkan
untuk
mencegah
korosi
antara
lain.
Perencanaan
yang
tepat,
pemilihan
bahan
hati-hati,
elektrokimia,
lapisan
pelindung,
penambahan
inhibitor
korosi.
Penggunaan
sering
dianggap
sebagai
paling
praktis
tidak
memakan
waktu[15]
.Penggunaan
waktu
Inhibitor
dapat
digunakan
pada
berbagai
logam,
besi,
baja,
aluminium,
tembaga.
[16]Penggunaan
dalam
industri,
lain:
industri
minyak
gas
pipa
gas.
Industri
pengolahan
makanan
peralatan
makanan.
farmasi
farmasi.
maritim
kapal
laut.
otomotif
kendaraan.Penggunaan
membantu
mengurangi
biaya
perbaikan
penggantian
disebabkan
[17].Dalam
upaya
menemukan
cara
menghentikan
sebelum
dimulai.
Para
peneliti
selalu
bekerja
memajukan
state
of
the
art
teknologi
tahan
Ada
strategi
berbeda
menghambat
sekarang
tersedia
[18].
Adapun
pencegahan
dikembangkan
pasif,
aktif,
terstruktur.
Metode
pasif
menggunakan
seperti
cat,
pelapisan
anodisasi.
aktif
meliputi
penggunaan
proteksi
katodik,
anodik,
kimia.
terstruktur
desain
konstruksi
tepat
paparan
[19].
APL Materials,
Journal Year:
2024,
Volume and Issue:
12(6)
Published: June 1, 2024
The
pervasive
issue
of
metal
corrosion
in
various
industrial
environments,
especially
marine
settings,
incurs
significant
economic
costs
and
hazardous
failures.
Traditional
protection
methods,
although
diverse,
fall
short
durability
environmental
adaptability,
necessitating
advanced
solutions,
such
as
two-dimensional
(2D)
materials,
including
graphene,
layered
double
hydroxides,
boron
nitride,
MXenes,
MoS2.
These
materials
offer
exceptional
barrier
properties
against
corrosive
agents
due
to
their
high
surface
area
minimal
thickness,
enhancing
the
lifespan
reliability
assets
under
harsh
conditions.
Innovations
self-repairing
coatings
application
techniques,
automated
spraying
rapid
photocuring,
further
augment
effectiveness.
In
this
Review,
recent
advancements
development
2D
material-enhanced
are
reviewed,
underscoring
potential
revolutionizing
through
improved
performance
metrics
sustainability.
challenges
prospects
these
novel
also
discussed,
highlighting
need
for
research
overcome
hurdles
realize
full
uses.
Corrosion and Materials Degradation,
Journal Year:
2025,
Volume and Issue:
6(1), P. 9 - 9
Published: Feb. 18, 2025
Research
on
bone
regeneration
has
always
been
an
intense
and
challenging
field
of
tissue
engineering.
Biodegradable
metals
represent
a
novel
class
biomaterials
combining
superior
mechanical
qualities
with
capacity
to
promote
growth.
Among
them,
magnesium
(Mg)
its
alloys
have
proposed
as
innovative
for
grafting
therapy
due
their
non-toxic
nature
comparable
properties
bones.
In
addition,
they
are
lightweight,
biocompatible
biodegradable.
They
offer
several
advantages
over
other
implant
metals,
including
reduced
stress-shielding
effects
unnecessity
second
surgery
remove
them.
Unfortunately,
clinical
application
is
limited
the
rapid
degradation
rates
in
rather
aggressive
physiological
conditions.
Therefore,
development
Mg-based
implants
possessing
controlled
accordance
kinetics
healing
necessary.
On
hand,
protective
yet
biodegradable
surface
coatings
emerged
useful
strategy
fulfill
diverse
requirements,
effective
corrosion
resistance.
Calcium
orthophosphates
(abbreviated
CaPO4)
excellent
candidates
producing
such
well
tolerated
by
living
organisms.
However,
high
chemical
reactivity
low
melting
point,
grafts
require
specific
parameters
successful
CaPO4
deposition.
This
paper
reviews
currently
available
preparation
methods
deposits
Mg
alloys,
aiming
build
up
comprehensive
knowledge
framework
deposition
techniques,
processing
parameters,
performance
measures
terms
resistance,
adhesion
strength
biocompatibility.
The
literature
analysis
shows
that
increase
ability
magnesium-based
metallic
withstand
improve
biocompatibility
surfaces
all
cases.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(45)
Published: Sept. 16, 2024
Abstract
Low‐density
magnesium
(Mg)
alloys
are
excellent
engineering
materials,
and
can
significantly
reduce
energy
consumption
by
replacing
existing
steel
aluminum
materials.
However,
Mg
species
susceptible
to
corrosion,
especially
in
harsh
environments
(high‐temperature
or
acidic),
severely
limiting
the
range
of
practical
applications.
Here,
2D
covalent
organic
framework
(COF)
is
synthesized
with
pore
diameters
ranging
from
1.5
2.9
nm
obtain
ultrafast
nanofluidic
channels.
Loaded
silver
(Ag
+
)
ions,
2‐mercaptobenzimidazole
(2‐MB)
inhibitors
immobilized
COF
channels
through
bridges.
Based
on
strong
metal‐complexing
capability,
Ag
ions
precipitated
various
corrosive
media
(Cl
−
,
Br
I
SO
3
2−
S
2
O
4
CO
PO
3−
);
meanwhile,
2‐MB
rapidly
released
channels,
forming
a
passivation
film
as
corrosion
barrier
protect
substrate.
After
integration
commercial
polyethersulfone
(PES),
COF‐based
coating
exhibits
high
repairing
capability
achieving
100%
damage
restoration
within
7
h,
outperforming
all
coatings
alloys.
Notably,
shows
almost
complete
protection
after
being
treated
respective
473
K,
acidic
(pH
≈4.0),
alkaline
≈10.0)
environments.
Journal of Applied Physics,
Journal Year:
2024,
Volume and Issue:
136(6)
Published: Aug. 9, 2024
Alloying
with
rare
earth
(RE)
elements
is
an
effective
way
to
improve
the
mechanical
properties
of
Mg
alloys.
However,
strengthening
mechanism
RE
element
Y
on
alloys
still
needs
be
further
revealed.
The
effect
grain
boundary
(GB)
segregation
and
GB
stability
are
investigated
by
molecular
dynamics
simulation
method.
results
show
that
atoms
can
significantly
increase
yield
strength
higher
content
at
GB,
stronger
also
GBs
thicken
increasing
GBs,
which
attributed
diffusion
atoms,
leading
solid-state
amorphization
indicate
undergo
a
transition
from
plastic
deformation
dominated
co-sliding
dislocations
slip
only.
This
work
provides
theoretical
basis
for
design
preparation
high-performance
Corrosion and Materials Degradation,
Journal Year:
2024,
Volume and Issue:
5(4), P. 513 - 560
Published: Oct. 31, 2024
Molecular
inhibitors
added
to
the
corrosive
medium
attacking
metallic
materials
are
a
well-established
way
of
combating
corrosion.
The
inhibitive
action
proceeds
via
adsorption
inhibitor
on
surface
be
protected.
Aromatic
building
blocks
in
play
major
role
its
protective
action,
and
further
details
like
substituents,
heteroatoms,
molecular
geometry
contribute.
An
overview
focused
aromatic
is
provided,
aiming
at
identification
particularly
promising
their
mode
action.
Directions
for
research
development
pointed
out
conclusion.