Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
33(12)
Published: Jan. 19, 2023
Abstract
Bacterial
cellulose
(BC)
is
an
environmentally
friendly
biomaterial
that
widely
investigated
because
it
possesses
a
unique
hierarchical
nanofiber
network
structure
as
well
extraordinary
performance.
In
this
review,
the
formation
of
BC
from
perspective
biosynthesis
illustrated
based
on
its
basic
chemical
and
crystal
structure.
Moreover,
design
processing
BC‐based
advanced
materials
through
biosynthesis,
physical,
and/or
modification
are
also
reviewed.
The
intrinsic
characteristics
BC,
derived
structure,
analyzed
to
understand
structure–property–application
relationships.
applications
reviewed,
such
high‐strength
structural
utilizing
properties
nanofibers,
energy
conversion
storage,
bioelectronic
interfaces,
environmental
remediation,
thermal
management
ion
transport
3D
structures
these
materials.
addition,
authors
offer
their
opinions
potential
future
research
directions
for
sustainably
developing
Nature Communications,
Journal Year:
2023,
Volume and Issue:
14(1)
Published: July 26, 2023
Abstract
Soft
and
stretchable
electronics
have
emerged
as
highly
promising
tools
for
biomedical
diagnosis
biological
studies,
they
interface
intimately
with
the
human
body
other
systems.
Most
electronic
materials
devices,
however,
still
Young’s
moduli
orders
of
magnitude
higher
than
soft
bio-tissues,
which
limit
their
conformability
long-term
biocompatibility.
Here,
we
present
a
design
strategy
interlayer
allowing
use
existing
relatively
high
to
versatilely
realize
devices
ultralow
tissue-level
moduli.
We
demonstrated
transistor
arrays
active-matrix
circuits
below
10
kPa—over
two
lower
current
state
art.
Benefiting
from
increased
irregular
dynamic
surfaces,
ultrasoft
device
created
realizes
electrophysiological
recording
on
an
isolated
heart
adaptability,
spatial
stability,
minimal
influence
ventricle
pressure.
In
vivo
biocompatibility
tests
also
demonstrate
benefit
suppressing
foreign-body
responses
implantation.
With
its
general
applicability
diverse
this
soft-interlayer
overcomes
material-level
limitation
imparting
softness
variety
bioelectronic
devices.
Neuron,
Journal Year:
2022,
Volume and Issue:
110(6), P. 914 - 934
Published: Jan. 17, 2022
Recent
breakthroughs
in
artificial
intelligence
(AI)
have
enabled
machines
to
plan
tasks
previously
thought
be
uniquely
human.
Meanwhile,
the
planning
algorithms
implemented
by
brain
itself
remain
largely
unknown.
Here,
we
review
neural
and
behavioral
data
sequential
decision-making
that
elucidate
ways
which
does—and
does
not—plan.
To
systematically
available
biological
data,
create
a
taxonomy
of
summarizing
relevant
design
choices
for
such
AI.
Across
species,
recording
techniques,
task
paradigms,
find
converging
evidence
represents
future
states
consistent
with
class
within
our
taxonomy—focused,
depth-limited,
serial.
However,
argue
current
are
insufficient
addressing
more
detailed
algorithmic
questions.
We
propose
new
approach
leveraging
AI
advances
drive
experiments
can
adjudicate
between
competing
candidate
algorithms.
Advanced Functional Materials,
Journal Year:
2022,
Volume and Issue:
32(22)
Published: Feb. 26, 2022
Abstract
Neuromorphic
circuits
emulating
the
bio‐brain
functionality
via
artificial
devices
have
achieved
a
substantial
scientific
leap
in
past
decade.
However,
even
with
advent
of
highly
advanced
bio‐inspired
algorithms,
intelligence
based
on
current
neuromorphic
is
lagging
behind
significantly
when
compared
naturally
evolved
biological
neural
circuits.
This
massive
and
intriguing
discrepancy
partly
due
to
incomprehensive
understanding
operating
mechanism,
which
relies
heavily
extremely
complexed
entangled
3D
hierarchical
networks.
Configuring
hardware
combined
computing
memory
functionalities,
coupled
compatible
progress
software
can
be
an
inevitable
route
surmount
limitation
encountered
by
2D
Herein,
referring
neuron
configuration
perspective
together
detailed
signal
generation
propagation
von
Neumann
state‐of‐the‐art
in‐memory
architecture,
development
perspectives
are
highlighted.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
33(12)
Published: Jan. 19, 2023
Abstract
Bacterial
cellulose
(BC)
is
an
environmentally
friendly
biomaterial
that
widely
investigated
because
it
possesses
a
unique
hierarchical
nanofiber
network
structure
as
well
extraordinary
performance.
In
this
review,
the
formation
of
BC
from
perspective
biosynthesis
illustrated
based
on
its
basic
chemical
and
crystal
structure.
Moreover,
design
processing
BC‐based
advanced
materials
through
biosynthesis,
physical,
and/or
modification
are
also
reviewed.
The
intrinsic
characteristics
BC,
derived
structure,
analyzed
to
understand
structure–property–application
relationships.
applications
reviewed,
such
high‐strength
structural
utilizing
properties
nanofibers,
energy
conversion
storage,
bioelectronic
interfaces,
environmental
remediation,
thermal
management
ion
transport
3D
structures
these
materials.
addition,
authors
offer
their
opinions
potential
future
research
directions
for
sustainably
developing
