Advanced Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 3, 2024
Abstract
Deciphering
inter‐
and
intracellular
signaling
pathways
is
pivotal
for
understanding
the
intricate
communication
networks
that
orchestrate
life's
dynamics.
Communication
models
involving
bottom‐up
construction
of
protocells
are
emerging
but
often
lack
specialized
compartments
sufficiently
robust
hierarchically
organized
to
perform
spatiotemporally
defined
signaling.
Here,
modular
communicating
polymer‐based
designed
mimic
transduction
information
in
retinal
photoreceptors
presented.
Microfluidics
used
generate
polymeric
subcompartmentalized
by
artificial
organelles.
In
one
protocell
population,
light
triggers
organelles
with
membrane‐embedded
photoresponsive
rotary
molecular
motors
set
off
a
sequence
reactions
starting
release
encapsulated
molecules
into
lumen.
Intercellular
mediated
signal
transfer
across
membranes
containing
catalytic
as
subcompartments,
whose
conversion
can
be
modulated
environmental
calcium.
Signal
propagation
also
requires
selective
permeability
diverse
compartments.
By
segregating
distinct
protocells,
sequential
chain
mediating
intercellular
created
further
adding
extracellular
messengers.
This
connective
behavior
offers
potential
deeper
faster
integration
proto‐
living
cells,
unique
advantage
controlling
each
step
bio‐relevant
signals.
Advanced Science,
Journal Year:
2023,
Volume and Issue:
11(8)
Published: Nov. 20, 2023
The
exponential
growth
of
research
on
artificial
cells
and
organelles
underscores
their
potential
as
tools
to
advance
the
understanding
fundamental
biological
processes.
bottom-up
construction
from
a
variety
building
blocks
at
micro-
nanoscale,
in
combination
with
biomolecules
is
key
developing
cells.
In
this
review,
are
focused
upon
based
compartments
where
polymers
main
constituent
assembly.
Polymers
particular
interest
due
incredible
chemical
advantage
tuning
properties
functionality
assemblies.
First,
architectures
nanoscale
polymer
assemblies
introduced
then
usage
elaborated
upon.
Different
membrane-bound
membrane-less
supramolecular
structures
how
they
combine
into
advanced
synthetic
presented.
Then,
functional
aspects
explored,
addressing
giant
mimic
cellular
Finally,
communicate
surrounding
each
other
such
adapt
an
ever-changing
environment
achieve
collective
behavior
steppingstone
toward
tissues,
taken
look
at.
Engineering
highly
controllable
programmable
features
open
new
avenues
for
development
sophisticated
multifunctional
systems.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
11(24)
Published: April 16, 2024
Abstract
The
ability
to
precisely
control
in
vitro
enzymatic
reactions
synthetic
cells
plays
a
crucial
role
the
bottom‐up
design
of
artificial
cell
models
that
can
recapitulate
key
cellular
features
and
functions
such
as
metabolism.
However,
integration
has
been
limited
bulk
or
microfluidic
emulsions
without
membrane,
lacking
more
sophisticated
higher‐order
communities
for
reconstituting
spatiotemporal
biological
information
at
multiple
length
scales.
Herein,
droplet
microfluidics
is
utilized
synthesize
cell‐like
polymersomes
with
distinct
molecular
permeability
driven
by
external
signals
fuels.
presence
competing
reverse
reaction
depletes
active
substrates
shown
enable
demonstration
fuel‐driven
formation
sub‐microcompartments
within
well
realization
out‐of‐equilibrium
systems.
In
addition,
different
characteristics
polymersome
membranes
are
exploited
successfully
construct
programmable
network
mimics
communication
heterogeneous
community
through
selective
transport.
International Journal of Molecular Sciences,
Journal Year:
2024,
Volume and Issue:
25(14), P. 7822 - 7822
Published: July 17, 2024
Mining
of
organophosphorous
(OPs)-degrading
bacterial
enzymes
in
collections
known
strains
and
natural
biotopes
are
important
research
fields
that
lead
to
the
isolation
novel
OP-degrading
enzymes.
Then,
implementation
strategies
methods
protein
engineering
nanobiotechnology
allow
large-scale
production
enzymes,
displaying
improved
catalytic
properties
for
medical
uses
protection
environment.
For
applications,
enzyme
formulations
must
be
stable
bloodstream
upon
storage
not
susceptible
induce
iatrogenic
effects.
This,
particular,
includes
nanoencapsulation
bioscavengers
origin.
In
application
field
bioremediation,
these
play
a
crucial
role
environmental
cleanup
by
initiating
degradation
OPs,
such
as
pesticides,
contaminated
environments.
microbial
cell
configuration,
can
break
down
chemical
bonds
OPs
usually
convert
them
into
less
toxic
metabolites
through
biotransformation
process
or
contribute
their
complete
mineralization.
purified
state,
they
exhibit
higher
pollutant
efficiencies
ability
operate
under
different
conditions.
Thus,
this
review
provides
clear
overview
current
knowledge
about
applications
OP-reacting
It
presents
works
focusing
on
use
various
bioremediation
mitigate
pollution
medicine
alternative
therapeutic
means
against
OP
poisoning.
Biomacromolecules,
Journal Year:
2024,
Volume and Issue:
25(9), P. 5454 - 5467
Published: Aug. 28, 2024
The
fundamental
building
block
of
living
organisms
is
the
cell,
which
universal
biological
base
all
entities.
This
micrometric
mass
cytoplasm
and
membrane
border
have
fascinated
scientists
due
to
highly
complex
multicompartmentalized
structure.
specific
organization
enables
numerous
metabolic
reactions
occur
simultaneously
in
segregated
spaces,
without
disturbing
each
other,
but
with
a
promotion
inter-
intracellular
communication
biomolecules.
At
present,
artificial
nano-
microcompartments,
whether
as
single
components
or
self-organized
multicompartment
architectures,
hold
significant
value
study
life
development
advanced
functional
materials
fabrication
molecular
devices
for
medical
applications.
These
compartments
also
possess
properties
encapsulate,
protect,
control
release
bio(macro)molecules
through
selective
transport
processes,
they
are
capable
embedding
being
connected
other
types
compartments.
self-assembly
mechanism
synthetic
thus
simulated
organelle
some
major
aspects
gain
insight.
Considerable
efforts
now
been
devoted
design
various
microcompartments
understand
their
functionality
precise
over
properties.
Of
particular
interest
use
polymeric
vesicles
cells
colloidal
systems
reinitiate
chemical
close
gap
toward
functions.
Multicompartment
can
be
effectively
created
high
level
hierarchical
control.
In
this
way,
these
structures
not
only
explored
deepen
our
understanding
cells,
pave
way
many
more
exciting
developments
biomedical
field.
Biomacromolecules,
Journal Year:
2024,
Volume and Issue:
25(7), P. 4192 - 4202
Published: June 25, 2024
The
permeability
and
responsiveness
of
polymer
membranes
are
absolutely
relevant
in
the
design
polymersomes
for
cargo
delivery.
Accordingly,
we
herein
correlate
structural
features,
permeability,
doxorubicin-loaded
(DOX-loaded)
nonresponsive
stimuli-responsive
with
their
vitro
vivo
antitumor
performance.
Polymer
vesicles
were
produced
using
amphiphilic
block
copolymers
containing
a
hydrophilic
poly[N-(2-hydroxypropyl)methacrylamide]
(PHPMA)
segment
linked
to
poly[N-(4-isopropylphenylacetamide)ethyl
methacrylate]
(PPPhA,
block),
poly[4-(4,4,5,5-tetra-methyl-1,3,2-dioxaborolan-2-yl)benzyl
[PbAPE,
reactive
oxygen
species
(ROS)-responsive
block],
or
poly[2-(diisopropylamino)ethyl
(PDPA,
pH-responsive
block).
PDPA-based
demonstrated
outstanding
biological
performance
activity
notably
enhanced
compared
counterparts.
We
attribute
this
behavior
fast-triggered
DOX
release
acidic
tumor
environments
as
induced
by
polymersome
disassembly
at
pH
<
6.8.
Possibly,
an
insufficient
ROS
concentration
selected
model
attenuates
rate
ROS-responsive
vesicle
degradation,
whereas
nature
PPPhA
remarkably
impacts
such
potential
nanomedicines.
Macromolecular Chemistry and Physics,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 7, 2025
Abstract
Polymersomes
are
polymeric
vesicles
composed
of
amphiphilic
block
copolymers
with
a
hydrophilic
inner
lumen
and
hydrophobic
membrane,
capable
encapsulating
both
payloads,
payloads.
The
one‐pot
synthesis
self‐assembly
polyethylene‐glycol‐based
polythiourethanes
consisting
pendant
methyl
or
aromatic
ester
reported
here.
During
the
ring
opening
cyclodithiocarbonate
using
ethylene
diamine
hexyl
diamine,
generated
thiols
utilized
to
modify
backbone
methyl,
benzyl,
diphenyl
esters.
containing
P3
P4
has
higher
dye
loading
than
other
polymers
P1
P2.
All
have
hydrodynamic
diameters
in
range
40–98
nm.
Atomic
force
microscopy
(AFM)
results
show
that
all
able
form
spherical
aggregates
38.1
±
7.7
85.1
27.4
Among
them,
side‐chain‐containing
42%
57%
calcein
encapsulation
efficiency,
whereas
methyl‐ester‐containing
70%
60%
efficiency.
longer
spacers
(P2–P4)
groups
(P3
P4)
shown
better
stability
slow
exchange
over
48
h
compared
polymer
an
aliphatic
side
chain
shorter
spacer
probed
by
fluorescence
resonance
energy
transfer
(FRET)
study.
Macromolecular Bioscience,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 21, 2025
Abstract
Polymeric
nanoarchitectures
are
crafted
from
amphiphilic
block
copolymers
through
a
meticulous
self‐assembly
process.
The
composition
of
these
is
finely
adjustable,
bestowing
precise
control
over
the
characteristics
and
properties
resultant
polymeric
assemblies.
These
nanoparticles
have
garnered
significant
attention,
particularly
in
realm
biological
sciences,
owing
to
their
biocompatibility,
favorable
pharmacokinetics,
facile
chemically
modifiable
nature.
Among
myriad
nanoarchitectures,
micelles
polymersomes
stand
out
as
frontrunners,
exhibiting
much
potential
cargo
carrier
systems
for
diverse
bio‐applications.
This
review
elucidates
design
strategies
employed
assemblies,
specifically
focusing
on
polymersomes.
Subsequently,
it
discusses
wide‐ranging
bio‐applications,
spanning
drug
delivery
diagnostics
bioimaging
artificial
cell
applications.
Finally,
reflective
analysis
will
be
provided,
highlighting
current
landscape
carriers,
discussing
opportunities
challenges
that
lie
ahead.
With
this
review,
aimed
summarize
recent
advances
assemblies
applications
biomedical
field.
Materials Today Bio,
Journal Year:
2025,
Volume and Issue:
31, P. 101565 - 101565
Published: Feb. 8, 2025
Artificial
cells
have
bridged
the
gap
between
non-living
systems
and
biological
cells.
In
recent
years,
artificial
designed
to
simulate
cellular
structure
function
garnered
significant
attention.
These
demonstrate
vast
potential
for
advancements
in
various
biomedical
areas,
including
simulating
cell
function,
creating
innovative
biosensors,
facilitating
bioactives
transport,
enabling
micro
nanoreactors,
improving
targeted
therapy
chronic
foodborne
diseases.
interdisciplinary
field
of
construction,
based
on
their
constituent
components,
these
can
be
categorized
into
lipid/polymer
vesicles,
coacervate,
colloidosome,
metal-organic
framework
(MOF)
They
are
anticipated
significantly
enhance
food
science,
particularly
optimization,
precise
nutrition
delivery,
nutrient
release,
rapid
detection
methods.
Consequently,
this
paper
will
comprehensively
cover
historical
background,
fabrication
techniques,
structural
characteristics
From
a
functional
design
perspective,
review
examines
growth
division
mechanisms,
energy
production
processes,
encapsulation
reaction
vessels,
carriers,
information
exchange
Ultimately,
it
provides
comprehensive
evaluation
safety
from
both
environmental
viewpoints,
introduce
expand
application
scenarios
biotechnology
science.
Droplet,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 18, 2025
Abstract
Compartmentalization
in
living
systems,
where
multiple
reactions
occur
parallel
within
confined
spaces,
has
inspired
the
development
of
droplet
networks
past
decade.
These
fascinating
assemblies
offer
unique
and
versatile
functions
that
are
unattainable
by
single
droplets
have
shown
their
potential
as
advanced
platforms
for
chemical
biological
applications.
This
review
highlights
recent
progress
creation
application
networks,
covering
strategies
generating
assembling
them
into
functional
networks.
Key
applications
such
microreactors,
signal
conductors,
actuators,
power
sources
summarized.
We
also
discuss
challenges
future
trends
this
field,
aiming
to
narrow
gap
between
fundamental
research
real