Next frontier.,
Journal Year:
2024,
Volume and Issue:
8(1), P. 95 - 95
Published: Nov. 8, 2024
Synthetic
biology
has
emerged
as
a
transformative
discipline,
enabling
precise
genetic
and
functional
reprogramming
of
cellular
systems.
In
T-cell
engineering,
it
offers
groundbreaking
potential
to
revolutionize
immunotherapy
by
endowing
T
cells
with
enhanced
specificity,
adaptability,
resilience
against
complex
diseases
such
cancer
autoimmune
disorders.
By
integrating
advanced
genome-editing
tools
like
CRISPR-Cas9
modular
synthetic
constructs,
researchers
can
design
bespoke
functionalities,
tunable
antigen
recognition,
controlled
cytokine
release,
resistance
immunosuppressive
tumor
microenvironments.
This
approach
not
only
overcomes
the
limitations
conventional
therapies
but
also
facilitates
development
novel
therapeutic
paradigms,
including
"smart"
systems
capable
sensing
responding
dynamic
biological
cues.
Furthermore,
circuits
allow
for
incorporation
logic-gated
mechanisms
minimize
off-target
effects
enhance
precision.
Despite
these
advancements,
challenges
remain
in
optimizing
safety,
scalability,
regulatory
compliance.
research
aims
explore
intersection
highlighting
cutting-edge
methodologies,
applications,
emerging
trends.
addressing
current
envisioning
future
possibilities,
this
work
seeks
contribute
growing
body
knowledge
driving
toward
clinical
industrial
breakthroughs
immunotherapy.
Trends in Pharmacological Sciences,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Chimeric
antigen
receptor
(CAR)-T
cell
therapy
has
transformed
the
treatment
landscape
for
hematological
cancers.
However,
achieving
comparable
success
in
solid
tumors
remains
challenging.
Factors
contributing
to
these
limitations
include
scarcity
of
tumor-specific
antigens
(TSAs),
insufficient
CAR-T
infiltration,
and
immunosuppressive
tumor
microenvironment
(TME).
Vaccine-based
strategies
are
emerging
as
potential
approaches
address
challenges,
enhancing
expansion,
persistence,
antitumor
efficacy.
In
this
review,
we
explore
diverse
vaccine
modalities,
including
mRNA,
peptide,
viral
vector,
dendritic
(DC)-based
vaccines,
their
roles
augmenting
responses.
Special
focus
is
given
recent
clinical
advancements
combining
mRNA-based
vaccines
with
genitourinary
addition,
discuss
crucial
considerations
optimizing
dosing,
scheduling,
delivery
maximize
synergy,
aiming
refine
combination
strategy
improve
efficacy
safety.
EBioMedicine,
Journal Year:
2024,
Volume and Issue:
106, P. 105266 - 105266
Published: Aug. 1, 2024
The
Chimeric
Antigen
Receptor
(CAR)
T
cell
therapy
has
emerged
as
a
ground-breaking
immunotherapeutic
approach
in
cancer
treatment.
To
overcome
the
complexity
and
high
manufacturing
cost
associated
with
current
ex
vivo
CAR
products,
alternative
strategies
to
produce
cells
directly
body
have
been
developed
recent
years.
These
involve
direct
infusion
of
genes
via
engineered
nanocarriers
or
viral
vectors
generate
situ.
This
review
offers
comprehensive
overview
advancements
development
cell-targeted
generation
Additionally,
it
identifies
challenges
method
potential
these
issues.
Trends in Pharmacological Sciences,
Journal Year:
2024,
Volume and Issue:
45(9), P. 839 - 857
Published: Aug. 14, 2024
Chimeric
antigen
receptor
(CAR)-engineered
T
(CAR-T)
cell
therapy
has
demonstrated
significant
success
in
treating
cancers.
The
potential
of
CAR-T
cells
is
now
being
explored
the
context
autoimmune
diseases.
Recent
clinical
trials
have
shown
sustained
and
profound
elimination
autoreactive
B
by
cells,
leading
to
promising
disease
control
with
minimal
safety
concerns.
These
encouraging
results
inspired
further
investigation
into
applications
for
a
broader
range
diseases
development
advanced
products
improved
efficacy
safety.
In
this
review,
we
discuss
mechanisms
which
target
conditions,
summarize
current
preclinical
models,
highlight
ongoing
trials,
including
design,
outcomes,
challenges.
Additionally,
limitations
future
directions
treatment
Nanoscale,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Gene
and
RNA-based
therapeutics
represent
a
promising
frontier
in
oncology,
enabling
targeted
modulation
of
tumor-associated
genes
proteins.
This
review
explores
the
latest
advances
payload
vectorization
delivery
systems
developed
for
vivo
cancer
treatments.
We
discuss
viral
non-viral
organic
particles,
including
lipid
based
nanoparticles
polymeric
structures,
effective
transport
plasmids,
siRNA,
self-amplifying
RNA
therapeutics.
Their
physicochemical
properties,
strategies
to
overcome
intracellular
barriers,
innovations
cell-based
carriers
engineered
extracellular
vesicles
are
highlighted.
Moreover,
we
consider
oncolytic
viruses,
novel
capsid
modifications,
approaches
that
refine
tumor
targeting
immunomodulation.
Ongoing
clinical
trials
regulatory
frameworks
guide
future
directions
emphasize
need
safe,
scalable
production.
The
potential
convergence
these
with
combination
therapies
paves
way
toward
personalized
medicine.
International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(7), P. 3119 - 3119
Published: March 28, 2025
Chimeric
antigen
receptor
T
cell
(CAR-T)
therapy
has
revolutionized
cancer
immunotherapy
but
continues
to
face
significant
challenges
that
limit
its
broader
application,
such
as
targeting,
the
tumor
microenvironment,
and
persistence,
especially
in
solid
tumors.
Meanwhile,
global
implementation
of
mRNA
vaccines
during
COVID-19
pandemic
highlighted
transformative
potential
lipid
nanoparticle
(LNP)
technologies.
These
innovations,
characterized
by
their
swift
development
timelines,
precise
design,
efficient
delivery
mechanisms,
provide
a
promising
framework
address
some
limitations
CAR-T
therapy.
Recent
advancements,
including
mRNA-based
CAR
engineering
optimized
LNP
delivery,
have
demonstrated
capacity
enhance
efficacy,
particularly
context
This
review
explores
how
mRNA-LNP
technology
can
drive
vivo
engineered
therapies
current
discusses
future
directions,
advancements
optimization,
strategies
for
improving
functionality
safety.
By
bridging
these
technological
insights,
may
evolve
into
versatile
accessible
treatment
paradigm
across
diverse
oncological
landscapes.
International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(7), P. 3206 - 3206
Published: March 30, 2025
Chimeric
antigen
receptor
(CAR)
T-cell
therapy
has
been
proven
to
be
an
effective
strategy
for
the
treatment
of
hematological
malignancies.
At
present,
how
prepare
CAR-T
cells
efficiently,
quickly,
and
safely
is
one
urgent
problems
solved.
The
durability
activity
engineered
T
in
solid
tumors
need
further
improved,
penetrating
tumor
microenvironment
also
needs
improved.
In
addition,
although
mainly
caused
by
biology
are
being
solved,
manufacturing
mode
process
still
improved
ensure
that
cell
can
widely
used.
This
paper
summarizes
some
strategies
improve
efficacy
cells.