Chemical Synthesis,
Journal Year:
2025,
Volume and Issue:
5(2)
Published: Feb. 27, 2025
With
the
explosive
growth
of
research
focused
on
building
units
and
types
crystalline
materials,
disruptive
changes
in
physical
and/or
chemical
properties
crystals
have
been
discovered.
As
most
studied
subclass
metal-organic
frameworks,
zeolitic
imidazolate
frameworks
(ZIFs)
shown
huge
potential
a
wide
range
applications,
such
as
gas
separation,
adsorption
catalysis,
so
on.
Specifically,
when
formed
with
multivariate
(MTV)
linkers
or
multi-metallic
ions,
named
MTV-ZIFs,
they
exhibit
significant
differences
their
thermodynamics,
kinetics
applications.
Unraveling
ranging
from
unique
structures
sequences
to
performance
reaction
mechanisms,
is
crucial
further
advance
expand
ZIFs.
In
this
review,
we
discuss
construction
methodology
classified
by
MTV
organic
nodes,
identify
challenges
opportunities,
particularly
linked
synthesis
corresponding
new
chemistry.
Ultimately,
outline
future
direction
designing
synthesizing
MTV-ZIFs
our
understanding
these
promising
materials.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(24)
Published: March 12, 2024
Abstract
Modern
human
civilization
deeply
relies
on
the
rapid
advancement
of
cutting‐edge
electronic
systems
that
have
revolutionized
communication,
education,
aviation,
and
entertainment.
However,
electromagnetic
interference
(EMI)
generated
by
digital
poses
a
significant
threat
to
society,
potentially
leading
future
crisis.
While
numerous
efforts
are
made
develop
nanotechnological
shielding
mitigate
detrimental
effects
EMI,
there
is
limited
focus
creating
absorption‐dominant
solutions.
Achieving
EMI
shields
requires
careful
structural
design
engineering,
starting
from
smallest
components
considering
most
effective
wave
attenuating
factors.
This
review
offers
comprehensive
overview
structures,
emphasizing
critical
elements
design,
mechanisms,
limitations
both
traditional
shields,
common
misconceptions
about
foundational
principles
science.
systematic
serves
as
scientific
guide
for
designing
structures
prioritize
absorption,
highlighting
an
often‐overlooked
aspect
ACS Central Science,
Journal Year:
2023,
Volume and Issue:
9(11), P. 2161 - 2170
Published: Nov. 10, 2023
We
leveraged
the
power
of
ChatGPT
and
Bayesian
optimization
in
development
a
multi-AI-driven
system,
backed
by
seven
large
language
model-based
assistants
equipped
with
machine
learning
algorithms,
that
seamlessly
orchestrates
multitude
research
aspects
chemistry
laboratory
(termed
Research
Group).
Our
approach
accelerated
discovery
optimal
microwave
synthesis
conditions,
enhancing
crystallinity
MOF-321,
MOF-322,
COF-323
achieving
desired
porosity
water
capacity.
In
this
human
researchers
gained
assistance
from
these
diverse
AI
collaborators,
each
unique
role
within
environment,
spanning
strategy
planning,
literature
search,
coding,
robotic
operation,
labware
design,
safety
inspection,
data
analysis.
Such
comprehensive
enables
single
researcher
working
concert
to
achieve
productivity
levels
analogous
those
an
entire
traditional
scientific
team.
Furthermore,
reducing
biases
screening
experimental
conditions
deftly
balancing
exploration
exploitation
parameters,
our
search
precisely
zeroed
on
pool
6
million
significantly
shortened
time
scale.
This
work
serves
as
compelling
proof
concept
for
AI-driven
revolution
laboratory,
painting
future
where
becomes
efficient
collaborator,
liberating
us
routine
tasks
focus
pushing
boundaries
innovation.
Journal of the American Chemical Society,
Journal Year:
2023,
Volume and Issue:
145(51), P. 28284 - 28295
Published: Dec. 13, 2023
We
construct
a
data
set
of
metal-organic
framework
(MOF)
linkers
and
employ
fine-tuned
GPT
assistant
to
propose
MOF
linker
designs
by
mutating
modifying
the
existing
structures.
This
strategy
allows
model
learn
intricate
language
chemistry
in
molecular
representations,
thereby
achieving
an
enhanced
accuracy
generating
structures
compared
with
its
base
models.
Aiming
highlight
significance
design
strategies
advancing
discovery
water-harvesting
MOFs,
we
conducted
systematic
variant
expansion
upon
state-of-the-art
MOF-303
utilizing
multidimensional
approach
that
integrates
extension
multivariate
tuning
strategies.
synthesized
series
isoreticular
aluminum
termed
Long-Arm
MOFs
(LAMOF-1
LAMOF-10),
featuring
bear
various
combinations
heteroatoms
their
five-membered
ring
moiety,
replacing
pyrazole
either
thiophene,
furan,
or
thiazole
rings
combination
two.
Beyond
consistent
robust
architecture,
as
demonstrated
permanent
porosity
thermal
stability,
LAMOF
offers
generalizable
synthesis
strategy.
Importantly,
these
10
LAMOFs
establish
new
benchmarks
for
water
uptake
(up
0.64
g
g-1)
operational
humidity
ranges
(between
13
53%),
expanding
diversity
MOFs.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 10, 2024
Abstract
This
review
highlights
recent
advances
in
machine
learning
(ML)‐assisted
design
of
energy
materials.
Initially,
ML
algorithms
were
successfully
applied
to
screen
materials
databases
by
establishing
complex
relationships
between
atomic
structures
and
their
resulting
properties,
thus
accelerating
the
identification
candidates
with
desirable
properties.
Recently,
development
highly
accurate
interatomic
potentials
generative
models
has
not
only
improved
robust
prediction
physical
but
also
significantly
accelerated
discovery
In
past
couple
years,
methods
have
enabled
high‐precision
first‐principles
predictions
electronic
optical
properties
for
large
systems,
providing
unprecedented
opportunities
science.
Furthermore,
ML‐assisted
microstructure
reconstruction
physics‐informed
solutions
partial
differential
equations
facilitated
understanding
microstructure–property
relationships.
Most
recently,
seamless
integration
various
platforms
led
emergence
autonomous
laboratories
that
combine
quantum
mechanical
calculations,
language
models,
experimental
validations,
fundamentally
transforming
traditional
approach
novel
synthesis.
While
highlighting
aforementioned
advances,
existing
challenges
are
discussed.
Ultimately,
is
expected
fully
integrate
atomic‐scale
simulations,
reverse
engineering,
process
optimization,
device
fabrication,
empowering
system
design.
will
drive
transformative
innovations
conversion,
storage,
harvesting
technologies.
Journal of the American Chemical Society,
Journal Year:
2024,
Volume and Issue:
146(10), P. 6955 - 6961
Published: Feb. 29, 2024
Machine
learning
is
gaining
momentum
in
the
prediction
and
discovery
of
materials
for
specific
applications.
Given
abundance
metal–organic
frameworks
(MOFs),
computational
screening
existing
MOFs
propane/propylene
(C3H8/C3H6)
separation
could
be
equally
important
developing
new
MOFs.
Herein,
we
report
a
machine
learning-assisted
strategy
C3H8-selective
from
CoRE
MOF
database.
Among
four
algorithms
applied
learning,
random
forest
(RF)
algorithm
displays
highest
degree
accuracy.
We
experimentally
verified
identified
top-performing
(JNU-90)
with
its
benchmark
selectivity
performance
directly
producing
C3H6.
Considering
excellent
hydrolytic
stability,
JNU-90
shows
great
promise
energy-efficient
C3H8/C3H6.
This
work
may
accelerate
development
challenging
separations.
Digital Discovery,
Journal Year:
2024,
Volume and Issue:
3(3), P. 491 - 501
Published: Jan. 1, 2024
The
integration
of
artificial
intelligence
into
scientific
research
opens
new
avenues
with
the
advent
GPT-4V,
a
large
language
model
equipped
vision
capabilities.
Communications Materials,
Journal Year:
2024,
Volume and Issue:
5(1)
Published: Feb. 15, 2024
Abstract
Materials
language
processing
(MLP)
can
facilitate
materials
science
research
by
automating
the
extraction
of
structured
data
from
papers.
Despite
existence
deep
learning
models
for
MLP
tasks,
there
are
ongoing
practical
issues
associated
with
complex
model
architectures,
extensive
fine-tuning,
and
substantial
human-labelled
datasets.
Here,
we
introduce
use
large
models,
such
as
generative
pretrained
transformer
(GPT),
to
replace
architectures
prior
strategic
designs
prompt
engineering.
We
find
that
in-context
GPT
few
or
zero-shots
provide
high
performance
text
classification,
named
entity
recognition
extractive
question
answering
limited
datasets,
demonstrated
various
classes
materials.
These
also
help
identify
incorrect
annotated
data.
Our
GPT-based
approach
assist
material
scientists
in
solving
knowledge-intensive
even
if
they
lack
relevant
expertise,
offering
guidelines
applicable
any
domain.
In
addition,
outcomes
expected
reduce
workload
researchers,
manual
labelling,
producing
an
initial
labelling
set
verifying
human-annotations.
Angewandte Chemie International Edition,
Journal Year:
2024,
Volume and Issue:
63(37)
Published: June 27, 2024
The
vast
number
of
element
combinations
and
the
explosive
growth
composition
space
pose
significant
challenges
to
development
high-entropy
alloys
(HEAs).
Here,
we
propose
a
procedural
research
method
aimed
at
accelerating
discovery
efficient
electrocatalysts
for
oxygen
reduction
reaction
(ORR)
based
on
Pt-based
quinary
HEAs.
begins
with
an
library
provided
by
large
language
model
(LLM),
combined
microscale
precursor
printing
pulse
high-temperature
synthesis
techniques
prepare
multi-element
combination
HEA
array
in
one
step.
Through
high-throughput
measurement
using
scanning
electrochemical
cell
microscopy
(SECCM),
precise
identification
highly
active
exploration
specific
are
achieved.
Advantageous
further
validated
practical
electrocatalytic
evaluations.
contributions
individual
sites
synergistic
effects
among
elements
such
HEAs
enhancing
activity
elucidated
via
density
functional
theory
(DFT)
calculations.
This
integrates
experiments,
catalyst
validation,
DFT
calculations,
providing
new
pathway
materials
field
energy
catalysis.