Small,
Journal Year:
2024,
Volume and Issue:
20(29)
Published: Feb. 11, 2024
Functional
nanostructures
build
up
a
basis
for
the
future
materials
and
devices,
providing
wide
variety
of
functionalities,
possibility
designing
bio-compatible
nanoprobes,
etc.
However,
development
new
nanostructured
via
trial-and-error
approach
is
obviously
limited
by
laborious
efforts
on
their
syntheses,
cost
manpower.
This
one
reasons
an
increasing
interest
in
design
novel
with
required
properties
assisted
machine
learning
approaches.
Here,
dataset
synthetic
parameters
optical
important
class
light-emitting
nanomaterials
-
carbon
dots
are
collected,
processed,
analyzed
transitions
red
near-infrared
spectral
ranges.
A
model
prediction
characteristics
these
based
multiple
linear
regression
established
verified
comparison
predicted
experimentally
observed
synthesized
three
different
laboratories.
Based
analysis,
open-source
code
provided
to
be
used
researchers
procedures.
Matter,
Journal Year:
2021,
Volume and Issue:
4(5), P. 1578 - 1597
Published: April 5, 2021
The
modular
nature
of
metal–organic
frameworks
(MOFs)
enables
synthetic
control
over
their
physical
and
chemical
properties,
but
it
can
be
difficult
to
know
which
MOFs
would
optimal
for
a
given
application.
High-throughput
computational
screening
machine
learning
are
promising
routes
efficiently
navigate
the
vast
space
have
rarely
been
used
prediction
properties
that
need
calculated
by
quantum
mechanical
methods.
Here,
we
introduce
Quantum
MOF
(QMOF)
database,
publicly
available
database
computed
quantum-chemical
more
than
14,000
experimentally
synthesized
MOFs.
Throughout
this
study,
demonstrate
how
models
trained
on
QMOF
rapidly
discover
with
targeted
electronic
structure
using
theoretically
band
gaps
as
representative
example.
We
conclude
highlighting
several
predicted
low
gaps,
challenging
task
electronically
insulating
most
Advanced Materials,
Journal Year:
2021,
Volume and Issue:
33(27)
Published: May 25, 2021
Piezoelectric
materials,
with
their
unique
ability
for
mechanical-electrical
energy
conversion,
have
been
widely
applied
in
important
fields
such
as
sensing,
harvesting,
wastewater
treatment,
and
catalysis.
In
recent
years,
advances
material
synthesis
engineering
provided
new
opportunities
the
development
of
bio-piezoelectric
materials
excellent
biocompatibility
piezoelectric
performance.
Bio-piezoelectric
attracted
interdisciplinary
research
interest
due
to
insights
on
impact
piezoelectricity
biological
systems
versatile
biomedical
applications.
This
review
therefore
introduces
platforms
from
a
broad
perspective
highlights
design
strategies.
State-of-the-art
applications
both
biosensing
disease
treatment
will
be
systematically
outlined.
The
relationships
between
properties,
structure,
performance
are
examined
provide
deep
understanding
working
mechanisms
physiological
environment.
Finally,
trends
challenges
discussed,
aim
construction
future
materials.
Journal of Chemical Information and Modeling,
Journal Year:
2021,
Volume and Issue:
61(5), P. 2131 - 2146
Published: April 29, 2021
The
acceleration
in
design
of
new
metal
organic
frameworks
(MOFs)
has
led
scientists
to
focus
on
high-throughput
computational
screening
(HTCS)
methods
quickly
assess
the
promises
these
fascinating
materials
various
applications.
HTCS
studies
provide
a
massive
amount
structural
property
and
performance
data
for
MOFs,
which
need
be
further
analyzed.
Recent
implementation
machine
learning
(ML),
is
another
growing
field
research,
MOFs
been
very
fruitful
not
only
revealing
hidden
structure–performance
relationships
but
also
understanding
their
trends
different
applications,
specifically
gas
storage
separation.
In
this
review,
we
highlight
current
state
art
ML-assisted
separation
address
both
opportunities
challenges
that
are
emerging
by
emphasizing
how
merging
ML
MOF
simulations
can
useful.
Energy and AI,
Journal Year:
2021,
Volume and Issue:
3, P. 100049 - 100049
Published: Jan. 24, 2021
The
screening
of
advanced
materials
coupled
with
the
modeling
their
quantitative
structural-activity
relationships
has
recently
become
one
hot
and
trending
topics
in
energy
due
to
diverse
challenges,
including
low
success
probabilities,
high
time
consumption,
computational
cost
associated
traditional
methods
developing
materials.
Following
this,
new
research
concepts
technologies
promote
development
necessary.
latest
advancements
artificial
intelligence
machine
learning
have
therefore
increased
expectation
that
data-driven
science
would
revolutionize
scientific
discoveries
towards
providing
paradigms
for
Furthermore,
current
advances
engineering
also
demonstrate
application
technology
not
only
significantly
facilitate
design
but
enhance
discovery
deployment.
In
this
article,
importance
necessity
contributing
global
carbon
neutrality
are
presented.
A
comprehensive
introduction
fundamentals
is
provided,
open-source
databases,
feature
engineering,
algorithms,
analysis
model.
Afterwards,
progress
alkaline
ion
battery
materials,
photovoltaic
catalytic
dioxide
capture
discussed.
Finally,
relevant
clues
successful
applications
remaining
challenges
highlighted.
Chemical Reviews,
Journal Year:
2021,
Volume and Issue:
121(16), P. 10001 - 10036
Published: Aug. 13, 2021
Chemical
compound
space
(CCS),
the
set
of
all
theoretically
conceivable
combinations
chemical
elements
and
(meta-)stable
geometries
that
make
up
matter,
is
colossal.
The
first-principles
based
virtual
sampling
this
space,
for
example,
in
search
novel
molecules
or
materials
which
exhibit
desirable
properties,
therefore
prohibitive
but
smallest
subsets
simplest
properties.
We
review
studies
aimed
at
tackling
challenge
using
modern
machine
learning
techniques
on
(i)
synthetic
data,
typically
generated
quantum
mechanics
methods,
(ii)
model
architectures
inspired
by
mechanics.
Such
Quantum
Machine
Learning
(QML)
approaches
combine
numerical
efficiency
statistical
surrogate
models
with
an
ab
initio
view
matter.
They
rigorously
reflect
underlying
physics
order
to
reach
universality
transferability
across
CCS.
While
state-of-the-art
approximations
problems
impose
severe
computational
bottlenecks,
recent
QML
developments
indicate
possibility
substantial
acceleration
without
sacrificing
predictive
power
Chemical Reviews,
Journal Year:
2022,
Volume and Issue:
122(15), P. 13006 - 13042
Published: June 27, 2022
Artificial
intelligence
and
specifically
machine
learning
applications
are
nowadays
used
in
a
variety
of
scientific
cutting-edge
technologies,
where
they
have
transformative
impact.
Such
an
assembly
statistical
linear
algebra
methods
making
use
large
data
sets
is
becoming
more
integrated
into
chemistry
crystallization
research
workflows.
This
review
aims
to
present,
for
the
first
time,
holistic
overview
cheminformatics
as
novel,
powerful
means
accelerate
discovery
new
crystal
structures,
predict
key
properties
organic
crystalline
materials,
simulate,
understand,
control
dynamics
complex
process
systems,
well
contribute
high
throughput
automation
chemical
development
involving
materials.
We
critically
advances
these
new,
rapidly
emerging
areas,
raising
awareness
issues
such
bridging
models
with
first-principles
mechanistic
models,
set
size,
structure,
quality,
selection
appropriate
descriptors.
At
same
we
propose
future
at
interface
applied
mathematics,
chemistry,
crystallography.
Overall,
this
increase
adoption
tools
by
chemists
scientists
across
industry
academia.
Frontiers in Marine Science,
Journal Year:
2022,
Volume and Issue:
9
Published: July 28, 2022
Conservation
of
marine
ecosystems
has
been
highlighted
as
a
priority
to
ensure
sustainable
future.
Effective
management
requires
data
collection
over
large
spatio-temporal
scales,
readily
accessible
and
integrated
information
from
monitoring,
tools
support
decision-making.
However,
there
are
many
roadblocks
achieving
adequate
timely
on
both
the
effectiveness,
long-term
success
conservation
efforts,
including
limited
funding,
inadequate
sampling,
processing
bottlenecks.
These
factors
can
result
in
ineffective,
or
even
detrimental,
decisions
already
impacted
ecosystems.
An
automated
approach
facilitated
by
artificial
intelligence
(AI)
provides
managers
with
toolkit
that
help
alleviate
number
these
issues
reducing
monitoring
bottlenecks
costs
monitoring.
Automating
collection,
transfer,
access
greater
information,
thereby
facilitating
effective
management.
Incorporating
automation
big
availability
into
decision
system
user-friendly
interface
also
enables
adaptive
We
summarise
current
state
techniques
used
science
use
examples
other
disciplines
identify
existing
potentially
transferable
methods
enable
improve
predictive
modelling
capabilities
making.
discuss
emerging
technologies
likely
be
useful
research
computer
associated
continues
develop
become
more
accessible.
Our
perspective
highlights
potential
AI
analytics
for
supporting
decision-making,
but
points
important
knowledge
gaps
multiple
areas
processes.
challenges
should
prioritised
move
toward
implementing
informed
understanding
successful
outcomes
managers.
conclude
emphasis
assisted
several
scientific
may
mean
future
is
improved
implementation
automation.
Journal of Composites Science,
Journal Year:
2023,
Volume and Issue:
7(9), P. 364 - 364
Published: Sept. 1, 2023
The
determination
of
mechanical
properties
plays
a
crucial
role
in
utilizing
composite
materials
across
multiple
engineering
disciplines.
Recently,
there
has
been
substantial
interest
employing
artificial
intelligence,
particularly
machine
learning
and
deep
learning,
to
accurately
predict
the
materials.
This
comprehensive
review
paper
examines
applications
intelligence
forecasting
different
types
composites.
begins
with
an
overview
then
outlines
process
predicting
material
properties.
primary
focus
this
lies
exploring
various
techniques
employed
Furthermore,
highlights
theoretical
foundations,
strengths,
weaknesses
each
method
used
for
Finally,
based
on
findings,
discusses
key
challenges
suggests
future
research
directions
field
prediction,
offering
valuable
insights
further
exploration.
is
intended
serve
as
significant
reference
researchers
engaging
studies
within
domain.
Interdisciplinary materials,
Journal Year:
2022,
Volume and Issue:
1(2), P. 175 - 195
Published: March 29, 2022
Abstract
With
its
extremely
strong
capability
of
data
analysis,
machine
learning
has
shown
versatile
potential
in
the
revolution
materials
research
paradigm.
Here,
taking
dielectric
capacitors
and
lithium‐ion
batteries
as
two
representative
examples,
we
review
substantial
advances
development
energy
storage
materials.
First,
a
thorough
discussion
framework
science
is
presented.
Then,
summarize
applications
from
three
aspects,
including
discovering
designing
novel
materials,
enriching
theoretical
simulations,
assisting
experimentation
characterization.
Finally,
brief
outlook
highlighted
to
spark
more
insights
on
innovative
implementation
science.