ACS symposium series,
Journal Year:
2023,
Volume and Issue:
unknown, P. 85 - 106
Published: Sept. 15, 2023
Biological
neural
systems
show
enhanced
functionality
due
to
the
biological
synapses.
To
harness
such
efficiency,
one
needs
produce
artificial
synapses
(ASs)
with
an
electronic
device
that
can
imitate
natural
system.
Recent
progress
in
two-dimensional
materials
has
enabled
researchers
use
them
for
various
energy-storage
applications.
In
order
emulate
human
brain
and
synaptic
devices,
MXene
have
been
studied
widely
neuromorphic
computing.
The
present
chapter
briefs
about
process
evolution
of
ASs
devices.
It
throws
light
on
advancements
devices
by
using
2D
like
features
intelligence
(AI)
machine
learning
(ML).
Catalysts,
Journal Year:
2023,
Volume and Issue:
13(4), P. 642 - 642
Published: March 23, 2023
Magnesium
oxide
nanoparticles
(MgO
NPs)
have
emerged
as
potential
materials
for
various
biomedical
applications
due
to
their
unique
physicochemical
properties,
including
biodegradability,
biocompatibility,
cationic
capacity,
high
stability
and
redox
properties.
MgO
NPs
become
an
attractive
platform
combat
microbes
may
be
a
promising
alternative
overcome
challenges
associated
with
eliminating
microbial
biofilms
antibiotic
resistance.
Hence,
the
increasing
use
of
in
biomedicine,
new
synthetic
strategies
are
necessary.
synthesised
using
green
methods
non-toxic,
eco-friendly
wide
range
biological,
medical
catalytic
applications.
This
review
presents
recent
advances
biosynthesis
by
diverse
bio-templates,
such
plant,
bacterial,
fungal
algal
extracts.
Its
photocatalytic
properties
show
suitable
inhibitory
function
against
pathogenic
agents,
proliferation,
biofilm
formation
growth.
Furthermore,
relevant
nanocomposites
comprehensively
discussed
regarding
mechanisms
effect
on
microbes,
strains,
well
future
perspectives.
Materials & Design,
Journal Year:
2023,
Volume and Issue:
233, P. 112231 - 112231
Published: Aug. 9, 2023
Bacterial
infection
continues
to
be
one
of
the
biggest
threats
human
health.
The
therapeutic
effect
is
significantly
reduced
as
a
result
development
super-bacteria-resistant
bacteria
due
overuse
antibiotics
for
conventional
antimicrobial
treatment.
emergence
drug-resistant
makes
it
necessary
develop
new
treatments.
Following
successful
application
photothermal
therapy
in
field
oncology
treatment,
more
and
researchers
are
applying
treatments
achieving
important
results,
especially
treatment
bacterial
infections.
As
non-invasive
anti-infection
method,
has
advantages
broad-spectrum
properties,
short
period,
low
systemic
impact.
In
PTT,
efficacy
strongly
depends
on
different
laser
properties
choice
agents
(PTAs).
purpose
this
review
discuss
most
recent
developments
nanomaterials
that
antibacterial.
We
will
delve
into
principles
spectrum
PTAs
provide
summary
current
synthesis,
classification,
structural
features,
physicochemical
antibacterial
performance
research.
challenges
future
prospects
enhanced
cytotoxicity
investigated.
ACS Applied Materials & Interfaces,
Journal Year:
2024,
Volume and Issue:
16(36), P. 47003 - 47049
Published: Aug. 27, 2024
Recently,
two-dimensional
(2-D)
layered
materials
have
revealed
outstanding
properties
and
play
a
crucial
role
for
numerous
advanced
applications.
The
emerging
transition
metal
carbides
nitrides,
known
as
MXene
with
empirical
formula
M
ACS Biomaterials Science & Engineering,
Journal Year:
2024,
Volume and Issue:
10(2), P. 657 - 676
Published: Jan. 19, 2024
The
fusion
of
MXene-based
materials
with
microfluidics
not
only
presents
a
dynamic
and
promising
avenue
for
innovation
but
also
opens
up
new
possibilities
across
various
scientific
technological
domains.
This
Perspective
delves
into
the
intricate
synergy
between
MXenes
microfluidics,
underscoring
their
collective
potential
in
material
science,
sensing,
energy
storage,
biomedical
research.
intersection
disciplines
anticipates
future
advancements
MXene
synthesis
functionalization
as
well
progress
advanced
sensing
technologies,
storage
solutions,
environmental
applications,
breakthroughs.
Crucially,
manufacturing
commercialization
microfluidic
devices,
coupled
interdisciplinary
collaborations,
stand
pivotal
considerations.
Envisioning
where
collaboratively
shape
our
landscape,
addressing
challenges
propelling
forward
necessitates
thoughtful
approach.
viewpoint
provides
comprehensive
assessment
current
state
field
while
outlining
prospects
integration
entities
microfluidics.
Materials Today Communications,
Journal Year:
2023,
Volume and Issue:
38, P. 107711 - 107711
Published: Nov. 29, 2023
The
rapid
advancement
of
theranostic
nanoplatforms
has
sparked
interest
in
the
development
diverse
inorganic
nanocarriers
with
multifunctional
properties
for
biomedical
applications.
MXenes
are
new
nanomaterials
unique
compositional,
structural,
and
physicochemical
characteristics.
have
been
broadly
used
applications
ranging
from
chemical,
optical,
electronic,
mechanical
to
fields.
excellent
prospects
biological
due
their
large
surface
area
desirable
near-infrared
(NIR)
absorption.
Surface
functionalization
appropriate
agents
improves
vivo
efficiency,
minimises
toxicity,
increases
circulation
time,
colloidal
stability.
This
review
outlines
recent
biomedicines,
modification
techniques,
synthesis
strategies,
conjugation
chemistry.
It
focuses
on
major
MXenes,
such
as
photothermal,
theranostic,
biosensing,
antibacterial
activities.
last
section
article
discusses
biosafety
stability
characteristics
along
addressing
challenges
related
clinical
translation
2D
If
existing
essential
difficulties
obstacles
effectively
addressed,
MXene-based
nanosystems
predicted
extensive
theranostics
biomedicine.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 26, 2025
Abstract
The
pursuit
of
advanced
neural
interfaces
hinges
on
developing
electrode
materials
with
enhanced
cathodic
charge
storage
capacity
(CSCc),
injection
(CIC),
and
low
impedance.
2D
nanomaterials,
particularly
MXenes,
have
emerged
as
leading
candidates
due
to
their
outstanding
electrical
properties.
However,
current
fabrication
strategies
not
fully
leveraged
the
potential
MXene,
limiting
performance
gains
in
recording
stimulation
applications.
Here,
a
novel
microscale
fiber
(MPP)
engineered
from
Ti₃C₂
MXene
PEDOT‐PSS
using
two‐step
solidification
wet
spinning
process
is
presented.
These
30
µm
fibers
exhibit
conductivity
(2.16
±
1.46)
×
10⁵
S
m
−1
,
interfacial
impedance,
high
CSCc
CIC,
achieving
substantial
improvements
signal
fidelity
efficiency.
MPP
electrodes
demonstrate
robust
electrochemical
stability,
biocompatibility,
magnetic
resonance
imaging
(MRI)
compatibility,
excelling
across
various
modalities,
including
electroencephalography
(EEG),
electromyography
(EMG),
electrocardiography
(ECG),
cortical
recordings,
subthalamic
nucleus
deep
brain
(STN‐DBS).
results
mark
significant
step
toward
scalable,
high‐performance
that
can
transform
neurotherapeutic
