Pharmaceutics,
Journal Year:
2024,
Volume and Issue:
16(5), P. 615 - 615
Published: May 2, 2024
This
review
outlines
the
evolutionary
journey
from
traditional
two-dimensional
(2D)
cell
culture
to
revolutionary
field
of
organ-on-a-chip
technology.
Organ-on-a-chip
technology
integrates
microfluidic
systems
mimic
complex
physiological
environments
human
organs,
surpassing
limitations
conventional
2D
cultures.
evolution
has
opened
new
possibilities
for
understanding
cell-cell
interactions,
cellular
responses,
drug
screening,
and
disease
modeling.
However,
design
manufacture
microchips
significantly
influence
their
functionality,
reliability,
applicability
different
biomedical
applications.
Therefore,
it
is
important
carefully
consider
parameters,
including
number
channels
(single,
double,
or
multi-channels),
channel
shape,
biological
context.
Simultaneously,
selection
appropriate
materials
compatible
with
cells
fabrication
methods
optimize
chips'
capabilities
specific
applications,
mitigating
some
disadvantages
associated
these
systems.
Furthermore,
success
platforms
greatly
depends
on
careful
utilization
resources.
Advances
in
stem
tissue
engineering
have
contributed
availability
diverse
sources,
facilitating
development
more
accurate
reliable
models.
In
conclusion,
a
holistic
perspective
vitro
modeling
provided,
highlighting
integration
meticulous
chip
design,
which
play
pivotal
role
replicating
organ-specific
microenvironments.
At
same
time,
sensible
use
resources
ensures
fidelity
innovative
several
Molecular Cancer,
Journal Year:
2023,
Volume and Issue:
22(1)
Published: Nov. 28, 2023
The
advent
of
iPSCs
has
brought
about
a
significant
transformation
in
stem
cell
research,
opening
up
promising
avenues
for
advancing
cancer
treatment.
formation
is
multifaceted
process
influenced
by
genetic,
epigenetic,
and
environmental
factors.
offer
distinctive
platform
investigating
the
origin
cancer,
paving
way
novel
approaches
to
treatment,
drug
testing,
tailored
medical
interventions.
This
review
article
will
provide
an
overview
science
behind
iPSCs,
current
limitations
challenges
iPSC-based
therapy,
ethical
social
implications,
comparative
analysis
with
other
types
also
discuss
applications
tumorigenesis,
future
tumorigenesis
highlight
successful
case
studies
utilizing
research.
conclusion
summarize
advancements
made
research
importance
continued
investment
iPSC
unlock
full
potential
these
cells.
Biosensors and Bioelectronics,
Journal Year:
2023,
Volume and Issue:
231, P. 115271 - 115271
Published: March 31, 2023
Current
in-vitro
2D
cultures
and
animal
models
present
severe
limitations
in
recapitulating
human
physiopathology
with
striking
discrepancies
estimating
drug
efficacy
side
effects
when
compared
to
trials.
For
these
reasons,
microphysiological
systems,
organ-on-chip
multiorgans
microdevices
attracted
considerable
attention
as
novel
tools
for
high-throughput
high-content
research
achieve
an
improved
understanding
of
diseases
accelerate
the
development
process
towards
more
precise
eventually
personalized
standards.
This
review
takes
form
a
guide
on
this
fast-growing
field,
providing
useful
introduction
major
themes
indications
further
readings.
We
start
analyzing
Organs-on-chips
(OOC)
technologies
testing
administration
routes:
(1)
oral/rectal
route
by
intestine-on-a-chip,
(2)
inhalation
lung-on-a-chip,
(3)
transdermal
skin-on-a-chip
(4)
intravenous
through
vascularization
models,
considering
how
drugs
penetrate
bloodstream
are
conveyed
their
targets.
Then,
we
focus
OOC
(other)
specific
organs
diseases:
neurodegenerative
brain
blood
barriers,
tumor
including
vascularization,
organoids/spheroids,
engineering
screening
antitumor
drugs,
liver/kidney
chips
multiorgan
gastrointestinal
metabolic
assessment
biomechanical
systems
heart,
muscles
bones
structures
related
diseases.
Successively,
discuss
materials
organ
chips,
microfluidic
organs-on-chips,
sensor
integration
real-time
monitoring,
cell
lines
chips.
(Nano)delivery
approaches
therapeutics
chip
also
described.
Finally,
conclude
critical
discussion
current
significance/relevance,
trends,
limitations,
challenges
future
prospects
terms
revolutionary
impact
biomedical
research,
preclinical
development.
Biological Procedures Online,
Journal Year:
2022,
Volume and Issue:
24(1)
Published: April 28, 2022
Abstract
Numerous
cancer-associated
deaths
are
owing
to
a
lack
of
effective
diagnostic
and
therapeutic
approaches.
Microfluidic
systems
for
analyzing
low
volume
samples
offer
precise,
quick,
user-friendly
technique
cancer
diagnosis
treatment.
devices
can
detect
many
cancer-diagnostic
factors
from
biological
fluids
also
generate
appropriate
nanoparticles
drug
delivery.
Thus,
microfluidics
may
be
valuable
in
the
field
due
its
high
sensitivity,
throughput,
cost.
In
present
article,
we
aim
review
recent
achievements
application
microfluidic
treatment
various
cancers.
Although
platforms
not
yet
used
clinic,
they
expected
become
main
technology
proving
more
sensitive
accurate
detection
biomarkers
strategies
than
common
assays.
lab-on-a-chip
have
shown
remarkable
potential
designing
novel
procedures
detection,
therapy,
disease
follow-up
as
well
development
new
delivery
Frontiers in Immunology,
Journal Year:
2023,
Volume and Issue:
14
Published: April 11, 2023
Cancer
immunotherapy
is
the
great
breakthrough
in
cancer
treatment
as
it
displayed
prolonged
progression-free
survival
over
conventional
therapies,
yet,
to
date,
only
a
minority
of
patients.
In
order
broad
clinical
applicability
some
roadblocks
need
be
overcome,
first
among
all
lack
preclinical
models
that
faithfully
depict
local
tumor
microenvironment
(TME),
which
known
dramatically
affect
disease
onset,
progression
and
response
therapy.
this
review,
we
provide
reader
with
detailed
overview
current
3D
developed
mimick
complexity
dynamics
TME,
focus
on
understanding
why
TME
major
target
anticancer
We
highlight
advantages
translational
potentials
spheroids,
organoids
immune
Tumor-on-a-Chip
modeling
therapeutic
response,
while
outlining
pending
challenges
limitations.
Thinking
forward,
possibility
integrate
know-hows
micro-engineers,
immunologists,
pharmaceutical
researchers
bioinformaticians
meet
needs
clinicians
interested
using
these
platforms
high
fidelity
for
patient-tailored
drug
discovery.
Biomaterials Science,
Journal Year:
2023,
Volume and Issue:
11(10), P. 3414 - 3430
Published: Jan. 1, 2023
Cancer
is
characterized
by
the
uncontrolled
division
of
cells,
resulting
in
formation
tumors.
The
personalized
composition
biomaterials
and
3D
techniques
can
be
used
as
a
modelling
tool
to
understand
complexity
various
cancers.
Biomedical Physics & Engineering Express,
Journal Year:
2024,
Volume and Issue:
10(5), P. 052002 - 052002
Published: Aug. 14, 2024
Abstract
Purpose
.
This
review
aims
to
highlight
current
improvements
in
microfluidic
devices
designed
for
digestive
cancer
simulation.
The
emphasizes
the
use
of
multicellular
3D
tissue
engineering
models
understand
complicated
biology
tumor
microenvironment
(TME)
and
progression.
purpose
is
develop
oncology
research
improve
patients’
lives.
Methods
analyzes
recent
on
mimicking
cancer.
It
uses
tissue-engineered
devices,
notably
organs
a
chip
(OOC),
simulate
human
organ
function
lab.
Cell
cultivation
modern
three-dimensional
hydrogel
platforms
allows
precise
geometry,
biological
components,
physiological
qualities.
novel
methodologies,
key
findings,
technical
progress
explain
this
field’s
advances.
Results
study
discusses
advances
Micro
systems
with
are
emphasized.
These
capture
complex
biochemical
gradients,
niche
variables,
dynamic
cell–cell
interactions
(TME).
reveal
stomach
progression
by
duplicating
TME.
Recent
discoveries
technology
have
improved
our
understanding
gut
biology,
as
shown
review.
Conclusion
Microfluidic
play
crucial
role
modeling
furthering
research.
could
transform
drug
development
treatment
revealing
provides
complete
summary
suggests
future
field
professionals.
review’s
major
goal
further
medical
Deleted Journal,
Journal Year:
2024,
Volume and Issue:
1(1), P. 100003 - 100003
Published: March 21, 2024
Organ-on-a-chip
(OOC)
facilitates
precise
manipulation
of
fluids
in
microfluidic
chips
and
simulation
the
physiological,
chemical,
mechanical
characteristics
tissues,
thus
providing
a
promising
tool
for
vitro
drug
screening
physiological
modeling.
In
recent
decades,
this
technology
has
advanced
rapidly
because
development
various
three-dimensional
(3D)
printing
techniques.
3D
can
not
only
fabricate
using
materials
such
as
resins
polydimethylsiloxane
but
also
construct
biomimetic
tissues
bioinks
cell-loaded
hydrogels.
review,
advances
3D-printing-based
OOC
are
systematically
summarized
based
on
used
direct
or
indirect
OOC,
techniques
construction
applications
models
heart,
blood
vessels,
intestines,
liver,
kidney.
addition,
future
perspectives
challenges
area
envisioned
to
inspire
researchers
employ
accelerate
development.
Advanced Healthcare Materials,
Journal Year:
2024,
Volume and Issue:
13(21)
Published: Jan. 15, 2024
Microfluidic
chips
are
valuable
tools
for
studying
intricate
cellular
and
cell-microenvironment
interactions.
Traditional
in
vitro
cancer
models
lack
accuracy
mimicking
the
complexities
of
vivo
tumor
microenvironment.
However,
cancer-metastasis-on-a-chip
(CMoC)
combine
advantages
3D
cultures
microfluidic
technology,
serving
as
powerful
platforms
exploring
mechanisms
facilitating
drug
screening.
These
able
to
compartmentalize
metastatic
cascade,
deepening
understanding
its
underlying
mechanisms.
This
article
provides
an
overview
current
CMoC
models,
focusing
on
distinctive
that
simulate
invasion,
intravasation,
circulation,
extravasation,
colonization,
their
applications
Furthermore,
challenges
faced
by
technologies
discussed,
while
promising
future
directions
research.
The
ongoing
development
integration
these
into
studies
expected
drive
transformative
advancements
field.
Frontiers in Medicine,
Journal Year:
2025,
Volume and Issue:
11
Published: Jan. 24, 2025
The
liver
is
a
vital
organ
responsible
for
numerous
metabolic
processes
in
the
human
body,
including
metabolism
of
drugs
and
nutrients.
After
damage,
can
rapidly
return
to
its
original
size
if
causative
factor
promptly
eliminated.
However,
when
harmful
stimulus
persists,
liver’s
regenerative
capacity
becomes
compromised.
Substantial
theoretical
feasibility
has
been
demonstrated
at
levels
gene
expression,
molecular
interactions,
intercellular
dynamics,
complemented
by
successful
animal
studies.
robust
model
carrier
that
closely
resemble
physiology
are
still
lacking
translating
these
theories
into
practice.
potential
regeneration
central
focus
ongoing
research.
Over
past
decade,
advent
organoid
technology
provided
improved
models
materials
advancing
research
efforts.
Liver
represents
novel
vitro
culture
system.
several
years
refinement,
organoids
now
accurately
replicate
morphological
structure,
nutrient
drug
metabolism,
secretory
functions,
providing
disease
Regenerative
medicine
aims
or
tissue
functions
repair
replace
damaged
tissues,
restore
their
structure
function,
stimulate
tissues
organs
within
body.
possess
same
function
as
tissue,
offering
serve
viable
replacement
liver,
aligning
with
goals
medicine.
This
review
examines
role
International Journal of Molecular Sciences,
Journal Year:
2023,
Volume and Issue:
24(8), P. 7116 - 7116
Published: April 12, 2023
Breast
cancer
is
the
most
common
in
women
and
responsible
for
multiple
deaths
worldwide.
3D
models
enable
a
better
representation
of
tumor
physiology
than
conventional
2D
cultures.
This
review
summarizes
important
components
physiologically
relevant
describes
spectrum
breast
models,
e.g.,
spheroids,
organoids,
on
chip
bioprinted
tissues.
The
generation
spheroids
relatively
standardized
easy
to
perform.
Microfluidic
systems
allow
control
over
environment
inclusion
sensors
can
be
combined
with
or
models.
strength
bioprinting
relies
spatial
cells
modulation
extracellular
matrix.
Except
predominant
use
cell
lines,
differ
stromal
composition,
matrices
fluid
flow.
Organoids
are
appropriate
personalized
treatment,
but
all
technologies
mimic
aspects
physiology.
Fetal
bovine
serum
as
culture
supplement
Matrigel
scaffold
limit
reproducibility
standardization
listed
integration
adipocytes
needed
because
they
possess
an
role
cancer.