Macromolecular Rapid Communications,
Год журнала:
2025,
Номер
unknown
Опубликована: Апрель 4, 2025
Targeted
protein
degradation
(TPD)
using
the
proteolysis-targeting
chimeras
(PROTACs)
is
emerging
as
a
revolutionary
technology,
offering
potential
strategy
for
cancer
treatment
by
inducing
of
overexpressed
oncogenic
proteins
in
tumors.
PROTACs
function
recruiting
E3
ligases
and
utilizing
ubiquitin-proteasome
pathway
(UPS)
to
catalyze
target
proteins.
Compared
traditional
small
molecules
inhibitors,
exhibit
enhanced
selectivity,
ability
overcome
drug
resistance,
traditionally
deemed
"undruggable".
However,
poor
water
solubility
low
cellular
permeability
significantly
limit
their
pharmacokinetic
properties,
while
systemic
toxicity
may
hinder
clinical
application.
To
address
these
limitations,
strategies
that
integrate
with
delivery
systems
are
gaining
attention.
This
review
summarizes
latest
advancements
various
enhance
vivo
efficacy
reduce
off-target
effects
PROTACs,
including
prototype
nanoparticles,
covalent
modification-based
prodrug
strategies,
innovative
multi-headed
designs,
microneedle
systems,
discussing
design
principles
associated
challenges.
The
combination
potent
multifunctional
holds
promise
accelerating
translation
improving
therapeutic
treatment.
Journal of Hematology & Oncology,
Год журнала:
2024,
Номер
17(1)
Опубликована: Апрель 2, 2024
Abstract
Cancer
immunotherapy
and
vaccine
development
have
significantly
improved
the
fight
against
cancers.
Despite
these
advancements,
challenges
remain,
particularly
in
clinical
delivery
of
immunomodulatory
compounds.
The
tumor
microenvironment
(TME),
comprising
macrophages,
fibroblasts,
immune
cells,
plays
a
crucial
role
response
modulation.
Nanoparticles,
engineered
to
reshape
TME,
shown
promising
results
enhancing
by
facilitating
targeted
These
nanoparticles
can
suppress
fibroblast
activation,
promote
M1
macrophage
polarization,
aid
dendritic
cell
maturation,
encourage
T
infiltration.
Biomimetic
further
enhance
increasing
internalization
agents
cells
such
as
cells.
Moreover,
exosomes,
whether
naturally
secreted
body
or
bioengineered,
been
explored
regulate
TME
immune-related
affect
cancer
immunotherapy.
Stimuli-responsive
nanocarriers,
activated
pH,
redox,
light
conditions,
exhibit
potential
accelerate
co-application
with
checkpoint
inhibitors
is
an
emerging
strategy
boost
anti-tumor
immunity.
With
their
ability
induce
long-term
immunity,
nanoarchitectures
are
structures
development.
This
review
underscores
critical
overcoming
current
driving
advancement
modification.
Advanced Materials,
Год журнала:
2023,
Номер
35(23)
Опубликована: Март 14, 2023
Targeting
metabolic
vulnerability
of
tumor
cells
is
a
promising
anticancer
strategy.
However,
the
therapeutic
efficacy
existing
metabolism-regulating
agents
often
compromised
due
to
tolerance
resulting
from
plasticity,
as
well
their
poor
bioavailability
and
tumor-targetability.
Inspired
by
inhibitive
effect
N-ethylmaleimide
on
mitochondrial
function,
dendronized-polymer-functionalized
metal-phenolic
nanomedicine
(pOEG-b-D-SH@NP)
encapsulating
maleimide-modified
doxorubicin
(Mal-DOX)
developed
enable
improvement
in
overall
delivery
efficiency
inhibition
metabolism
via
multiple
pathways.
It
observed
that
Mal-DOX
its
derived
induces
energy
depletion
CT26
colorectal
cancer
more
efficiently
than
doxorubicin,
shifts
balance
programmed
cell
death
apoptosis
toward
necroptosis.
Notably,
pOEG-b-D-SH@NP
simultaneously
inhibits
cellular
oxidative
phosphorylation
glycolysis,
thus
potently
suppressing
growth
peritoneal
intestinal
metastasis
mouse
models.
Overall,
study
provides
dendronized-polymer-derived
nanoplatform
for
treatment
cancers
through
impairing
plasticity.
Advanced Materials,
Год журнала:
2023,
Номер
36(4)
Опубликована: Авг. 29, 2023
Photodynamic
therapy
(PDT),
which
utilizes
type
I
photoreactions,
has
great
potential
as
an
effective
cancer
treatment
because
of
its
hypoxia-tolerant
superiority
over
the
commonly
used
II
pathway.
A
few
photosensitizers
are
exploited;
however,
they
majorly
induce
cytotoxicity
and
possess
poor
tumor
specificity
low-efficient
theranostics.
To
resolve
this
issue,
herein
aminopeptidase
N
(APN)-activated
phototheranostic
probe
(CyA)
is
reported
for
anti-hypoxic
PDT
in
conjunction
with
immunotherapy
treatment.
CyA
can
specifically
activate
near-infrared
fluorescence,
photoacoustic
signals,
phototoxicity
following
APN-induced
substrate
cleavage
subsequent
generation
active
molecules
(such
CyBr).
endows
specific
imaging
capabilities
toward
cells
overexpressing
APN
under
both
normoxia
hypoxia.
In
addition,
locally
activatable
induces
systemic
antitumor
immune
responses.
More
importantly,
integration
localized
activated
evokes
enhanced
therapeutic
effects
improved
inhibition
efficiency
live
mice
compared
individual
treatments.
This
study
aims
to
present
combination
therapy.
ACS Nano,
Год журнала:
2023,
Номер
17(10), С. 9126 - 9139
Опубликована: Апрель 25, 2023
Administration
of
bispecific
antibodies
(biAbs)
in
tumor
therapy
is
limited
by
their
short
half-life
and
off-target
toxicity.
Optimized
strategies
or
targets
are
needed
to
overcome
these
barriers.
B7-H3
(CD276),
a
member
the
B7
superfamily,
associated
with
poor
survival
glioblastoma
(GBM)
patients.
Moreover,
dimer
EGCG
(dEGCG)
synthesized
this
work
enhanced
IFN-γ-induced
ferroptosis
cells
vitro
vivo.
Herein,
we
prepared
recombinant
anti-B7-H3×CD3
biAbs
constructed
MMP-2-sensitive
S-biAb/dEGCG@NPs
offer
combination
treatment
strategy
for
efficient
systemic
GBM
elimination.
Given
targeted
delivery
microenvironment
responsiveness,
displayed
intracranial
accumulation,
4.1-,
9.5-,
12.3-fold
higher
than
that
biAb/dEGCG@NPs,
biAb/dEGCG
complexes,
free
biAbs,
respectively.
Furthermore,
50%
GBM-bearing
mice
S-biAb/dEGCG@NP
group
survived
longer
56
days.
Overall,
can
induce
elimination
boosting
effect
enhancing
immune
checkpoint
blockade
(ICB)
immunotherapy
may
be
successful
antibody
nanocarriers
cancer
therapy.
Journal of the American Chemical Society,
Год журнала:
2023,
Номер
145(30), С. 16642 - 16649
Опубликована: Июль 21, 2023
Confining
the
protein
degradation
activity
of
proteolysis-targeting
chimera
(PROTAC)
to
cancer
lesions
ensures
precision
treatment.
However,
it
still
remains
challenging
precisely
control
PROTAC
function
in
tumor
regions
vivo.
We
herein
describe
a
near-infrared
(NIR)
photoactivatable
nano-PROTAC
(NAP)
for
remote-controllable
proteolysis
tumor-bearing
mice.
NAP
is
formed
by
molecular
self-assembly
from
an
amphiphilic
conjugate
linked
with
NIR
photosensitizer
through
singlet
oxygen
(1O2)-cleavable
linker.
The
initially
silenced
but
can
be
remotely
switched
on
upon
photoirradiation
generate
1O2
photosensitizer.
demonstrated
that
enabled
tumor-specific
bromodomain-containing
4
(BRD4)
light-instructed
manner.
This
combination
photodynamic
therapy
(PDT)
elicited
effective
suppression
growth.
work
thus
presents
novel
approach
spatiotemporal
over
targeted
PROTAC.
Abstract
Proteolysis-targeting
chimeras
(PROTACs)
technology
has
garnered
significant
attention
over
the
last
10
years,
representing
a
burgeoning
therapeutic
approach
with
potential
to
address
pathogenic
proteins
that
have
historically
posed
challenges
for
traditional
small-molecule
inhibitors.
PROTACs
exploit
endogenous
E3
ubiquitin
ligases
facilitate
degradation
of
interest
(POIs)
through
ubiquitin–proteasome
system
(UPS)
in
cyclic
catalytic
manner.
Despite
recent
endeavors
advance
utilization
clinical
settings,
majority
fail
progress
beyond
preclinical
phase
drug
development.
There
are
multiple
factors
impeding
market
entry
PROTACs,
insufficiently
precise
favorable
POIs
standing
out
as
one
most
formidable
obstacles.
Recently,
there
been
exploration
new-generation
advanced
including
PROTAC
prodrugs,
biomacromolecule-PROTAC
conjugates,
and
nano-PROTACs,
improve
vivo
efficacy
PROTACs.
These
improved
possess
capability
mitigate
undesirable
physicochemical
characteristics
inherent
thereby
enhancing
their
targetability
reducing
off-target
side
effects.
The
will
mark
pivotal
turning
point
realm
targeted
protein
degradation.
In
this
comprehensive
review,
we
meticulously
summarized
state-of-the-art
advancements
achieved
by
these
cutting-edge
elucidated
underlying
design
principles,
deliberated
upon
prevailing
encountered,
provided
an
insightful
outlook
on
future
prospects
within
field.
Signal Transduction and Targeted Therapy,
Год журнала:
2024,
Номер
9(1)
Опубликована: Ноя. 6, 2024
Abstract
Targeted
protein
degradation
(TPD)
represents
a
revolutionary
therapeutic
strategy
in
disease
management,
providing
stark
contrast
to
traditional
approaches
like
small
molecule
inhibitors
that
primarily
focus
on
inhibiting
function.
This
advanced
technology
capitalizes
the
cell’s
intrinsic
proteolytic
systems,
including
proteasome
and
lysosomal
pathways,
selectively
eliminate
disease-causing
proteins.
TPD
not
only
enhances
efficacy
of
treatments
but
also
expands
scope
applications.
Despite
its
considerable
potential,
faces
challenges
related
properties
drugs
their
rational
design.
review
thoroughly
explores
mechanisms
clinical
advancements
TPD,
from
initial
conceptualization
practical
implementation,
with
particular
proteolysis-targeting
chimeras
molecular
glues.
In
addition,
delves
into
emerging
technologies
methodologies
aimed
at
addressing
these
enhancing
efficacy.
We
discuss
significant
trials
highlight
promising
outcomes
associated
drugs,
illustrating
potential
transform
treatment
landscape.
Furthermore,
considers
benefits
combining
other
therapies
enhance
overall
effectiveness
overcome
drug
resistance.
The
future
directions
applications
are
explored,
presenting
an
optimistic
perspective
further
innovations.
By
offering
comprehensive
overview
current
innovations
faced,
this
assesses
transformative
revolutionizing
development
setting
stage
for
new
era
medical
therapy.
Nanoscale,
Год журнала:
2024,
Номер
16(9), С. 4378 - 4391
Опубликована: Янв. 1, 2024
Schematic
illustration
of
the
combinational
strategy
nanotechnology
and
PROTACs
(Nano-PROTACs):
typical
shortcomings
traditional
nanotechnology-based
strategies
for
PROTAC
drugs
optimization.
Advanced Materials,
Год журнала:
2023,
Номер
36(3)
Опубликована: Ноя. 16, 2023
Lung
cancer
is
the
second
most
prevalent
and
leading
cause
of
cancer-related
death
worldwide.
Surgery,
chemotherapy,
molecular
targeted
therapy,
immunotherapy,
radiotherapy
are
currently
available
as
treatment
methods.
However,
drug
resistance
a
significant
factor
in
failure
lung
treatments.
Novel
therapeutics
have
been
exploited
to
address
complicated
mechanisms
advancement
nanomedicine
extremely
promising
terms
overcoming
resistance.
Nanomedicine
equipped
with
multifunctional
tunable
physiochemical
properties
alignment
tumor
genetic
profiles
can
achieve
precise,
safe,
effective
while
minimizing
or
eradicating
cancer.
Here,
this
work
reviews
discovered
for
radiotherapy,
outlines
novel
strategies
development
against
This
focuses
on
engineering
design,
customized
delivery,
current
challenges,
clinical
translation
application
resistant