Chinese Journal of Chemistry,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 26, 2024
Comprehensive
Summary
The
advancement
of
bioorthogonal
cleavage
reactions
(BCRs)
has
expanded
the
scope
chemistry
toolkit,
leading
to
a
diverse
array
innovative
biological
applications.
These
include
but
are
not
limited
precise
spatial
and
temporal
activation
intracellular
probes,
prodrugs,
proteins,
glycans,
nucleic
acids.
Herein,
we
summarize
recent
efforts
by
our
group
develop
BCRs
for
manipulating
functional
molecules
in
living
species
meet
various
needs,
along
with
future
perspectives
this
exciting
field.
How
do
you
get
into
specific
field?
Could
please
share
some
experiences
readers?
Chemists
good
at
both
forming
breaking
bonds.
Back
2013,
while
field
was
continuously
thriving,
most
researchers
focused
on
"ligation"
type
reactions.
Alternatively,
I
started
wonder
whether
could
"bond‐cleavage"
reactions?
We
reviewed
literature
found
that
is
indeed
yet
be
developed.
immediately
encouraged
my
graduate
students
such
began
look
potential
applications
new
chemistry.
soon
developed
series
"cleavage"
can
triggered
metals,
small
molecules,
as
well
photocatalysis.
then
applied
these
activate
proteins
other
biomolecules,
allowing
gain‐of‐function
study
their
properties
inside
cells.
Small
molecule
drugs
also
activated
within
tumor
bed,
which
led
safer
more
efficient
anti‐cancer
drugs.
Over
past
decade,
have
built
decaging
toolbox
generally
applicable
virtually
any
interest,
persistently
working
broadening
spectrum
reaction
types
This
created
direction
broad
utilities
life
sciences
medicine.
supervise
your
students?
encourage
think
independently
collaborate
widely.
would
delighted
if
ideas
let
me
learn
something.
In
addition
experimental
training,
pay
great
attention
cultivating
students'
logical
thinking,
English
writing,
presentation
skills.
For
regular
weekly
meetings,
two
will
give
in‐depth
presentations
research
projects,
all
members
provide
constructive
discussions
suggestions.
What
important
personality
scientific
research?
opinion,
traits
curiosity,
perseverance,
critical
thinking.
favorite
journal(s)?
ACS
Chemical
Biology
.
us
advices
improving
Chinese
Journal
Chemistry?
Consider
organizing
special
issues
focus
emerging
areas
chemistry,
attract
high‐quality
submissions
increase
journal's
impact.
Physical Review Applied,
Journal Year:
2025,
Volume and Issue:
23(1)
Published: Jan. 2, 2025
Selective
acoustic
tweezers
can
focus
the
radiation
force
on
a
single
particle
to
manipulate
it
without
affecting
its
neighbors.
Traditionally,
this
has
required
highly
complex
and
specialized
hardware,
incompatible
with
high-throughput
manipulation.
In
two-dimensional
numerical
study,
we
demonstrate
that
two
pairs
of
orthogonal
transducers,
known
for
manipulating
arrays
particles,
also
achieve
selective
Specifically,
show
selectivity
is
possible
by
using
sequences
pulses
iteratively
construct
combined
potential
focused
solely
target
particle.
locked
icon
Physics
Subject
Headings
(PhySH)Acoustic
wave
phenomenaAcoustofluidicsNonlinear
acousticsAcoustic
tweezersMicrofluidic
devicesFinite-element
methodSurface
waveUltrasound
techniques
Science Advances,
Journal Year:
2024,
Volume and Issue:
10(47)
Published: Nov. 22, 2024
Three-dimensional
(3D)
cell
culture
has
revolutionized
life
sciences,
particularly
in
organoid
technologies.
Traditional
bioscaffold
materials,
however,
complicate
the
detachment
of
tumor
organoids
and
hamper
routine
use
organoid–immune
cocultures.
Here,
we
show
an
acoustic
virtual
3D
scaffold
(AV-Scaf)
method
to
achieve
culture,
enabling
a
direct-interacting
coculture
system.
The
self-organization
process
cells
is
facilitated
by
vortex
field,
which
enables
bioassembly
ion
channel
activation.
This
approach
can
significantly
enhance
influx
calcium
ions,
thereby
accelerating
intercellular
interactions
cellular
assemblies.
We
established
scaffold-free
melanoma
breast
cancer
using
AV-Scaf
cocultured
with
T
cells.
found
that
our
system
resulted
high
activation
state
cells,
characterized
notable
up-regulation
granzyme
B
(2.82
17.5%)
interferon-γ
(1.36
16%).
offers
efficient
for
studies,
advancing
research
immunotherapy
development.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 22, 2024
Abstract
The
unique
1D
structure
of
fibers
offers
intriguing
attributes,
including
a
high
length‐to‐diameter
ratio,
miniatured
size,
light‐weight,
and
flexibility,
making
them
suitable
for
various
biomedical
applications,
such
as
health
monitoring,
disease
treatment,
minimally
invasive
surgeries.
However,
traditional
fiber
devices,
typically
composed
rigid,
dry,
non‐living
materials,
are
intrinsically
different
from
the
soft,
wet,
living
essence
biological
tissues,
thereby
posing
grand
challenges
long‐term,
reliable,
seamless
interfacing
with
systems.
Hydrogel
have
recently
emerged
promising
candidate,
in
light
their
similarity
to
tissues
mechanical,
chemical
aspects,
well
distinct
geometry.
In
this
review,
comprehensive
overview
recent
progress
hydrogel
fibers‐based
biointerfacing
technology
is
provided.
It
thoroughly
summarizes
manufacturing
strategy
functional
design,
especially
optical
electron
conductive
performance,
responsiveness
triggers
thermal,
magnetic
field
ultrasonic
wave,
etc.
Such
attributes
enable
which
also
examined
detail.
Future
potential
directions,
biosafety,
long‐term
reliability,
sterilization,
multi‐modalities
integration
intelligent
therapeutic
systems,
raised.
This
review
will
serve
valuable
resource
further
advancement
implementation
next‐generation
technology.
Droplet,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 9, 2025
Abstract
Research
on
cells
and
organ‐like
tissues
is
critical
in
the
fields
of
molecular
biology,
genetic
analysis,
proteomics
tissue
engineering,
others.
In
recent
years,
advancements
precise
cell
manipulation
technologies
have
made
positioning
batch
processing
feasible.
Various
methods
are
used
for
recognition,
positioning,
manipulation,
assembly,
often
introducing
external
such
as
electric,
magnetic,
acoustic,
or
optical
into
liquid
environment
to
interact
with
cells,
applying
forces
induce
movement
rearrangement.
Alternatively,
three‐dimensional
(3D)
bioprinting
technology
employed
assembly.
This
review
will
comprehensively
assess
status,
principles,
advantages,
disadvantages,
prospects
these
technologies,
covering
single‐cell
multicellular
biological
3D
printing
techniques.
Advanced Engineering Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 21, 2025
To
overcome
the
propulsion
difficulties
in
low
Reynolds
number
environment,
natural
species
have
developed
their
exclusive
swimming
strategies
after
1000
years
of
evolution.
Inspired
by
those
fascinating
creatures,
diverse
artificial
microrobots
are
proposed
to
achieve
distinctive
biomimetic
motions.
However,
lack
cognition
for
mechanism
hinders
exploration
multimode
biomimicking
microrobots,
especially
at
high‐speed
locomotion.
Herein,
behaviors
micro
sonobot
featured
with
multiple‐layer
tubular
constructions
and
trapped
microbubbles
serving
as
powerful
microengines
reported.
The
observed
speed
achieves
tens
millimeters
per
second.
Different
from
previously
reported
bubble‐loaded
it
is
that
primary
Bjerknes
forces
originating
nonhomogeneous
acoustic
field
make
a
great
contribution
orientation.
Along
streaming
secondary
forces,
including
individual
locomotion
group
aggregation
emerged
theoretically
analyzed.
motion
sonobots
offers
marvelous
potentials
building
multifunctional
micro/nanosystems
nanosurgery,
lab‐on‐a‐chip
biosystems,
chemical
biological
engineering,
environmental
detoxification,
etc.
Jentashapir Journal of Cellular and Molecular Biology,
Journal Year:
2025,
Volume and Issue:
16(1)
Published: Feb. 13, 2025
Context:
Recent
advances
in
induced
pluripotent
stem
cells
(iPSCs),
CRISPR-Cas9
gene
editing,
nanotechnologies,
and
artificial
intelligence
have
revolutionized
regenerative
medicine
(RM)
as
a
transformative
field
for
tackling
difficult
medical
problems.
These
breakthroughs
promise
specific
treatments,
proper
restoration
of
tissue
function,
substantial
improvements
the
quality
life
patients
whose
ailments
cannot
yet
be
cured.
This
review
explores
cutting-edge
advancements
RM
platforms
such
cell
therapy,
3D
bioprinting,
nanotechnology.
The
study
also
aims
to
shed
light
on
challenges
clinical
translation
policy
implications,
which
are
crucial
fostering
sustainable
progressive
discipline.
Evidence
Acquisition:
manuscript
draws
research
development
application
technologies.
It
synthesizes
data
cells,
engineering,
vitro
organoid
industry,
(AI),
nanotechnology
that
illustrate
therapeutic
potential.
identify
ethical,
regulatory,
practical
hurdles
translating
from
practice.
Results:
Breakthroughs
those
iPSC-derived
organoids,
nanostructured
materials
exhibit
significant
preclinical
settings.
Platforms
organ-on-chip
AI
tools
further
enhance
drug
discovery
treatment
monitoring,
while
biomaterials
scaffold-based
approaches
repair
regeneration.
Nevertheless,
despite
these
advances,
persist
regarding
scale-up,
safety,
ethical
considerations.
Conclusions:
Innovations
represent
paradigm
shift
purely
symptomatic
treatments
restorative
therapies.
Successful
integration
into
practice
will
require
multidisciplinary
collaborative
work,
imposition
rigorous
safety
protocols,
enabling
regulatory
frameworks.
Addressing
would
enable
realize
its
true
potential
foundation
21st-century
healthcare.
Advanced NanoBiomed Research,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 26, 2025
Acoustic
patterning
is
a
noncontact
method
to
manipulate
the
spatial
distribution
of
small
particles
using
forces
generated
in
an
ultrasound
standing
wave
field.
The
technique
has
found
applications
fields
such
as
cell
sorting,
microfabrication,
and
tissue
engineering.
For
engineering,
acoustic
enables
remote
manipulation,
even
clinical
settings.
Conventional
axial
strategies
rely
on
reflector‐based
or
dual‐probe
approaches,
limiting
their
application
controlled
setups
incompatible
with
vivo
conditions.
In
contrast,
single‐sided
lateral
exploiting
transmit
beamforming
capabilities
tunability
transducer
array,
can
bridge
gap
applications.
first
time,
clinical‐phased
array
used
acoustically
pattern
microscale
both
directions,
dynamic
control
over
shape
orientation
by
adjusting
electronic
delays.
data
are
validate
numerical
model
designed
predict
particle
displacement
current
future
experiments.
Finally,
successfully
applied
living
cells,
demonstrating
potential
translation
proof
concept
toward
tissues.
conclusion,
arrays
augmenting
flexibility
advancing
for