Nanoscale,
Journal Year:
2024,
Volume and Issue:
16(16), P. 7892 - 7907
Published: Jan. 1, 2024
Anaerobic
bacteria
deliver
anisotropic
magnetic
nanocarriers
to
hard-to-reach
hypoxic
tumor
cores.
The
enhanced
heating
effect
at
the
cores
of
tumors
acts
as
a
smart
therapeutic
approach
for
improved
hyperthermia-based
cancer
therapy.
Chemical Society Reviews,
Journal Year:
2021,
Volume and Issue:
50(20), P. 11614 - 11667
Published: Jan. 1, 2021
Magnetic
hyperthermia
(MHT)
is
a
therapeutic
modality
for
the
treatment
of
solid
tumors
that
has
now
accumulated
more
than
30
years
experience.
In
ongoing
MHT
clinical
trials
brain
and
prostate
tumors,
iron
oxide
nanoparticles
are
employed
as
intra-tumoral
agents
under
patient-safe
100
kHz
alternating
magnetic
field
(AMF)
applicator.
Although
currently
approved
by
FDA
imaging
purposes
anemia,
(MNPs)
designed
efficient
must
respond
to
specific
physical-chemical
properties
in
terms
magneto-energy
conversion,
heat
dose
production,
surface
chemistry
aggregation
state.
Accordingly,
past
few
decades,
these
requirements
have
boosted
development
new
generation
MNPs
specifically
aimed
MHT.
this
review,
we
present
an
overview
on
their
assemblies
produced
via
different
synthetic
routes,
focusing
which
MNP
features
allowed
unprecedented
heating
efficiency
levels
be
achieved
highlighting
nanoplatforms
prevent
loss
intracellular
environment.
Moreover,
review
advances
MNP-based
embrace
concept
multimodal
therapy,
aims
combine
with
chemotherapy,
radiotherapy,
immunotherapy,
photodynamic
or
phototherapy.
Next,
better
control
temperature
at
tumor,
focus
studies
optimized
maintain
gold-standard
performance
also
tackling
aim
quantitatively
assess
amount
tumor
site
regulate
conditions.
To
conclude,
future
perspectives
guidance
how
advance
therapy
will
provided.
Nano Select,
Journal Year:
2021,
Volume and Issue:
2(6), P. 1146 - 1186
Published: Jan. 21, 2021
Abstract
Magnetic
nanoparticles
(MNPs)
offer
tremendous
potentialities
in
biomedical
applications
for
a
long
while.
Since
these
materials'
interactions
biological
media
largely
rely
on
their
crystal
structures,
sizes,
and
shapes,
detailed
studies
synthesis
mechanism
medicinal
aspects
are
crucial.
Despite
many
review
reports
that
have
already
been
published
MNPs,
they
mainly
focused
either
perspective
or
characterization
along
with
functionalization
mechanisms
as
individual
entities.
For
this
reason,
uncovers
comprehensive
insight
into
the
ongoing
improvement
of
fabrication
processes,
surface
MNPs
together.
Besides,
various
magnetic
nanocomposite
(MNCs)
smart
drug
delivery,
recent
hyperthermia
treatment,
lab‐on‐a‐chip,
bio‐separation,
some
emerging
imaging
techniques
using
discussed.
A
analysis
toxicity,
challenges,
progress
clinical
trials
is
sketched
out
to
open
numerous
entryways
advanced
research
applications.
Biomaterials Science,
Journal Year:
2022,
Volume and Issue:
10(9), P. 2103 - 2121
Published: Jan. 1, 2022
Superparamagnetic
iron
oxide
nanoparticles
(SPIONs)
have
attracted
attention
in
the
biomedical
field
thanks
to
their
ability
prompt
hyperthermia
response
an
alternated
magnetic
field.
Hyperthermia
is
well
known
for
inducing
cell
death,
particular
tumour
cells,
which
seem
a
higher
sensitivity
temperature
increases.
For
this
reason,
has
been
recommended
as
therapeutic
tool
against
cancer.
Despite
potentialities
of
approach,
little
still
about
effects
provoked
by
at
molecular
level,
and
death
mechanisms
that
are
activated.
Nevertheless,
in-depth
knowledge
aspect
would
allow
improvement
outcomes
favour
clinical
translation.
Moreover,
last
few
decades,
lot
effort
put
into
finding
effective
delivery
strategy
could
improve
SPION
biodistribution
localisation
action
site.
The
aim
review
provide
general
outline
hyperthermia,
focusing
on
interactions
with
fields,
new
strategies
efficiently
deliver
them
target
site,
recent
vitro
vivo
studies
proposing
possible
pathways
activated
treatment.
We
will
also
cover
current
status,
discuss
contributions
omics
understanding
between
biological
environment.
Materials Advances,
Journal Year:
2022,
Volume and Issue:
3(20), P. 7425 - 7444
Published: Jan. 1, 2022
Magnetic
nanoparticles
(MNPs)
show
tremendous
possibilities
in
the
field
of
biomedicine,
especially
as
therapeutic
agents
for
use
over
a
prolonged
duration.
Nanomaterials,
Journal Year:
2020,
Volume and Issue:
10(8), P. 1548 - 1548
Published: Aug. 7, 2020
The
photothermal
use
of
iron
oxide
magnetic
nanoparticles
(NPs)
is
becoming
more
and
popular
documented.
Herein,
we
compared
the
(PT)
therapy
potential
versus
hyperthermia
(MHT)
modality
nanospheres,
largely
used
in
biomedical
field
multicore
nanoflowers
known
among
best
nanoheaters.
NPs
were
imaged
using
transmission
electron
microscopy
their
optical
properties
characterized
by
UV-Vis-NIR-I-II
before
oxidation
(magnetite)
after
to
maghemite.
efficiency
all
MHT
PT
preferred
second
near-infrared
(NIR-II)
biological
window
was
carried
out
water
cancer
cells.
We
show
that,
water,
magnetite
are
most
efficient
nanoheaters
for
both
modalities.
Moreover,
appears
much
than
at
low
NP
dose,
whatever
NP.
In
cellular
environment,
PT,
totally
conserved,
with
as
performers
MHT,
which
lost.
Finally,
cell
uptake
significantly
increased
nanospheres.
antitumor
investigated
same
dose
delivered
cells
reasonable
laser
power
density
(0.3
W/cm2),
showed
almost
total
death
nanoflowers.
Frontiers in Molecular Biosciences,
Journal Year:
2021,
Volume and Issue:
7
Published: Jan. 11, 2021
Therapeutic,
diagnostic,
and
imaging
approaches
based
on
nanotechnology
offer
distinct
advantages
in
cancer
treatment.
Various
nanotherapeutics
have
been
presented
as
potential
alternatives
to
traditional
anticancer
therapies
such
chemotherapy,
radiotherapy,
surgical
intervention.
Notably,
the
advantage
of
is
mainly
attributable
their
accumulation
targeting
ability
toward
cells,
multiple
drug-carrying
abilities,
combined
therapies,
approaches.
To
date,
numerous
nanoparticle
formulations
developed
for
therapy
among
them,
metallic
reportedly
demonstrate
promising
therapeutic
diagnostic
efficiencies
owing
dense
surface
functionalization
ability,
uniform
size
distribution,
shape-dependent
optical
responses,
easy
cost-effective
synthesis
procedure,
anti-cancer
effects.
Metallic
can
remodel
tumor
microenvironment
by
changing
unfavorable
conditions
into
therapeutically
accessible
ones
with
help
different
stimuli,
including
light,
heat,
ultrasound,
an
alternative
magnetic
field,
redox,
reactive
oxygen
species.
The
combination
both
external
internal
stimuli
be
used
trigger
on-demand
release
molecules,
augmenting
efficacies
photothermal
therapy,
photodynamic
hyperthermia,
sonodynamic
chemodynamic
immunotherapy.
In
this
review,
we
summarized
role
well
combinational
effects
enhanced
therapy.
Nanoscale,
Journal Year:
2021,
Volume and Issue:
13(39), P. 16405 - 16426
Published: Jan. 1, 2021
The
present
review
article
provides
the
insight
of
an
overall
survey
on
recent
advancements
manganese
nanomaterials
for
biomedical
nanotechnology
and
other
fields.
Small,
Journal Year:
2022,
Volume and Issue:
18(13)
Published: Feb. 8, 2022
Abstract
Extracellular
vesicles
(e.g.,
exosomes)
carrying
various
biomolecules
proteins,
lipids,
and
nucleic
acids)
have
rapidly
emerged
as
promising
platforms
for
many
biomedical
applications.
Despite
their
enormous
potential,
heterogeneity
in
surfaces
sizes,
the
high
complexity
of
cargo
biomolecules,
inefficient
uptake
by
recipient
cells
remain
critical
barriers
theranostic
To
address
these
issues,
multifunctional
nanomaterials,
such
magnetic
with
tunable
physical,
chemical,
biological
properties,
may
play
crucial
roles
next‐generation
extracellular
(EV)‐based
disease
diagnosis,
drug
delivery,
tissue
engineering,
regenerative
medicine.
As
such,
one
aims
to
provide
cutting‐edge
knowledge
pertaining
nanomaterials‐facilitated
isolation,
detection,
delivery
associated
biomolecules.
By
engaging
fields
it
is
envisioned
that
properties
can
be
effectively
combined
optimal
outcomes
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
33(13)
Published: Jan. 17, 2023
Abstract
Developing
radiosensitizers
based
on
the
characteristics
of
tumor
microenvironment
can
improve
effectiveness
and
overcome
bottleneck
cervical
cancer
radiotherapy.
Herein,
an
in
situ
synthesis
strategy
is
demonstrated
by
using
a
highly
bioactive
zeolitic
imidazolate
framework
to
cap
Mn
3
O
4
folic
acid
as
targeting
molecules
(FA‐Mn
@ZIF‐8)
achieve
enhanced
radiosensitization
against
cancer.
As
expected,
ZIF‐8
surface
responds
more
effectively
X‐rays.
Meanwhile,
facilitating
presence
oxygen
vacancies
valence
transition
manganese
,
increase
catalytic
capacity
for
hydrogen
peroxide
(H
2
)
glutathione
well
produce
singlet
under
X‐ray,
alleviate
hypoxia
within
microenvironment,
reactive
species
production.
Moreover,
FA‐Mn
@ZIF‐8
shows
excellent
radiotherapy‐sensitizing
properties
vitro
vivo
promoting
DNA
damage
apoptosis.
Collectively,
this
study
suggests
that
designing
construction
X‐ray
responsive
nanoradiosensitizers
could
be
good
way
future
clinical
radiotherapy
malignant