Lab on a Chip,
Journal Year:
2021,
Volume and Issue:
22(3), P. 512 - 529
Published: Nov. 1, 2021
Functional
nanoparticles
(NPs)
hold
immense
promise
in
diverse
fields
due
to
their
unique
biological,
chemical,
and
physical
properties
associated
with
size
or
morphology.
Microfluidic
technologies
featuring
precise
fluid
manipulation
have
become
versatile
toolkits
for
manufacturing
NPs
a
highly
controlled
manner
low
batch-to-batch
variability.
In
this
review,
we
present
the
fundamentals
of
microfluidic
fabrication
strategies,
including
mixing-,
droplet-,
multiple
field-based
methods.
We
highlight
formation
functional
using
these
reactors,
an
emphasis
on
lipid
NPs,
polymer
lipid-polymer
hybrid
supramolecular
metal
metal-oxide
metal-organic
framework
covalent
organic
quantum
dots,
perovskite
nanocrystals,
biomimetic
etc.
discuss
future
directions
accelerated
development
such
as
device
parallelization
large-scale
NP
production,
efficient
optimization
formulations,
AI-guided
design
multi-step
reactors.
Advanced NanoBiomed Research,
Journal Year:
2021,
Volume and Issue:
2(2)
Published: Nov. 25, 2021
Lipid
nanoparticles
have
attracted
significant
interests
in
the
last
two
decades,
and
achieved
tremendous
clinical
success
since
first
approval
of
Doxil
1995.
At
same
time,
lipid
also
demonstrated
enormous
potential
delivering
nucleic
acid
drugs
as
evidenced
by
RNA
therapies
mRNA
COVID‐19
vaccines.
In
this
review,
an
overview
on
different
classes
nanoparticles,
including
liposomes,
solid
nanostructured
carriers,
is
provided,
followed
introduction
their
preparation
methods.
Then
characterizations
are
briefly
reviewed
applications
encapsulating
hydrophobic
drugs,
hydrophilic
RNAs
highlighted.
Finally,
various
for
overcoming
delivery
challenges,
crossing
blood–brain
barrier,
targeted
delivery,
routes
administration,
summarized.
drug
systems
offer
many
attractive
benefits
such
great
biocompatibility,
ease
preparation,
feasibility
scale‐up,
nontoxicity,
while
current
challenges
warrant
future
studies
about
structure–function
correlations,
large‐scale
production,
to
realize
full
wider
pharmaceutical
future.
International Journal of Molecular Sciences,
Journal Year:
2023,
Volume and Issue:
24(3), P. 2700 - 2700
Published: Jan. 31, 2023
mRNA
vaccines
have
been
demonstrated
as
a
powerful
alternative
to
traditional
conventional
because
of
their
high
potency,
safety
and
efficacy,
capacity
for
rapid
clinical
development,
potential
rapid,
low-cost
manufacturing.
These
progressed
from
being
mere
curiosity
emerging
COVID-19
pandemic
vaccine
front-runners.
The
advancements
in
the
field
nanotechnology
developing
delivery
vehicles
are
highly
significant.
In
this
review
we
summarized
each
every
aspect
vaccine.
article
describes
structure,
its
pharmacological
function
immunity
induction,
lipid
nanoparticles
(LNPs),
upstream,
downstream,
formulation
process
Additionally,
trials
also
described.
A
deep
dive
into
future
perspectives
vaccines,
such
freeze-drying,
systems,
LNPs
targeting
antigen-presenting
cells
dendritic
cells,
summarized.
Nano Letters,
Journal Year:
2021,
Volume and Issue:
21(13), P. 5671 - 5680
Published: June 30, 2021
A
major
challenge
to
advance
lipid
nanoparticles
(LNPs)
for
RNA
therapeutics
is
the
development
of
formulations
that
can
be
produced
reliably
across
various
scales
drug
development.
Microfluidics
generate
LNPs
with
precisely
defined
properties,
but
have
been
limited
by
challenges
in
scaling
throughput.
To
address
this
challenge,
we
present
a
scalable,
parallelized
microfluidic
device
(PMD)
incorporates
an
array
128
mixing
channels
operate
simultaneously.
The
PMD
achieves
>100×
production
rate
compared
single
channels,
without
sacrificing
desirable
LNP
physical
properties
and
potency
typical
microfluidic-generated
LNPs.
In
mice,
show
superior
delivery
encapsulating
either
Factor
VII
siRNA
or
luciferase-encoding
mRNA
generated
using
conventional
mixing,
4-fold
increase
hepatic
gene
silencing
5-fold
luciferase
expression,
respectively.
These
results
suggest
scalable
reproducible
needed
emerging
clinical
applications,
including
vaccines.
ACS Materials Au,
Journal Year:
2023,
Volume and Issue:
3(6), P. 600 - 619
Published: Aug. 21, 2023
Over
the
past
decade,
therapeutic
potential
of
nanomaterials
as
novel
drug
delivery
systems
complementing
conventional
pharmacology
has
been
widely
acknowledged.
Among
these
nanomaterials,
lipid-based
nanoparticles
(LNPs)
have
shown
remarkable
pharmacological
performance
and
promising
outcomes,
thus
gaining
substantial
interest
in
preclinical
clinical
research.
In
this
review,
we
introduce
main
types
LNPs
used
formulations
such
liposomes,
nanoemulsions,
solid
lipid
nanoparticles,
nanostructured
carriers,
polymer
hybrid
focusing
on
their
physicochemical
properties
potential.
We
discuss
computational
studies
modeling
techniques
to
enhance
understanding
how
interact
with
cargo
predict
effectiveness
interactions
applications.
also
analyze
benefits
drawbacks
various
LNP
production
nanoprecipitation,
emulsification,
evaporation,
thin
film
hydration,
microfluidic-based
methods,
an
impingement
jet
mixer.
Additionally,
major
challenges
associated
industrial
development,
including
stability
sterilization,
storage,
regulatory
compliance,
reproducibility,
quality
control.
Overcoming
facilitating
compliance
represent
key
steps
toward
LNP's
successful
commercialization
translation
into
settings.
Small,
Journal Year:
2022,
Volume and Issue:
18(36)
Published: April 9, 2022
Abstract
Nanoparticles
(NPs)
have
attracted
tremendous
interest
in
drug
delivery
the
past
decades.
Microfluidics
offers
a
promising
strategy
for
making
NPs
due
to
its
capability
precisely
controlling
NP
properties.
The
recent
success
of
mRNA
vaccines
using
microfluidics
represents
big
milestone
microfluidic
pharmaceutical
applications,
and
rapid
scaling
up
demonstrates
feasibility
industrial‐scale
manufacturing.
This
article
provides
critical
review
progress
delivery.
First,
synthesis
organic
focusing
on
typical
methods
their
applications
popular
clinically
relevant
NPs,
such
as
liposomes,
lipid
polymer
well
mechanisms
are
summarized.
Then,
several
representative
inorganic
(e.g.,
silica,
metal,
metal
oxide,
quantum
dots),
hybrid
is
discussed.
Lastly,
various
presented.
ACS Nano,
Journal Year:
2022,
Volume and Issue:
16(7), P. 10066 - 10087
Published: July 1, 2022
Antibiotic
resistance
has
become
a
serious
threat
to
human
health
due
the
overuse
of
antibiotics.
Different
antibiotics
are
being
developed
treat
resistant
bacteria,
but
development
cycle
is
hard
keep
up
with
high
incidence
antibiotic
resistance.
Recent
advances
in
antimicrobial
nanomaterials
have
made
nanotechnology
powerful
solution
this
dilemma.
Among
these
nanomaterials,
gold
excellent
antibacterial
efficacy
and
biosafety,
making
them
alternatives
This
review
presents
strategies
that
use
combat
drug-resistant
bacteria.
We
focus
on
influence
physicochemical
factors
such
as
surface
chemistry,
size,
shape
their
properties
describe
applications
medical
devices.
Finally,
existing
challenges
future
directions
discussed.
Nature Communications,
Journal Year:
2023,
Volume and Issue:
14(1)
Published: Jan. 17, 2023
Abstract
Lipid
nanoparticle-mediated
RNA
delivery
holds
great
potential
to
treat
various
liver
diseases.
However,
targeted
of
therapeutics
activated
liver-resident
fibroblasts
for
fibrosis
treatment
remains
challenging.
Here,
we
develop
a
combinatorial
library
anisamide
ligand-tethered
lipidoids
(AA-lipidoids)
using
one-pot,
two-step
modular
synthetic
method
and
adopt
two-round
screening
strategy
identify
AA-lipidoids
with
both
high
potency
selectivity
deliver
payloads
fibroblasts.
The
lead
AA-lipidoid
AA-T3A-C12
mediates
greater
transfection
than
its
analog
without
the
FDA-approved
MC3
ionizable
lipid.
In
preclinical
model
fibrosis,
enables
~65%
silencing
heat
shock
protein
47,
therapeutic
target
primarily
expressed
by
fibroblasts,
which
is
2-fold
more
potent
MC3,
leading
significantly
reduced
collagen
deposition
fibrosis.
These
results
demonstrate
Furthermore,
these
methods
strategies
open
new
avenue
discover
targeting
properties,
can
potentially
enable
range
cell
tissue
types
that
are
challenging
access
traditional
lipid
nanoparticle
formulations.