Molecular Systems Design & Engineering,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
We
report
the
use
of
a
multiagent
generative
artificial
intelligence
framework,
X-LoRA-Gemma
large
language
model
(LLM),
to
analyze,
design
and
test
molecular
design.
The
model,
inspired
by
biological...
We
report
the
use
of
a
multimodal
generative
artificial
intelligence
framework,
X-LoRA-Gemma
large
language
model
(LLM),
to
analyze,
design
and
test
molecular
design.
The
model,
inspired
by
biological
principles
featuring
~7
billion
parameters,
dynamically
reconfigures
its
structure
through
dual-pass
inference
strategy
enhance
problem-solving
abilities
across
diverse
scientific
domains.
is
used
first
identify
engineering
targets
systematic
human-AI
AI-AI
self-driving
multi-agent
approach
elucidate
key
for
optimization
improve
interactions
between
molecules.
Next,
process
that
includes
rational
steps,
reasoning
autonomous
knowledge
extraction.
Target
properties
molecule
are
identified
either
using
Principal
Component
Analysis
(PCA)
or
sampling
from
distribution
known
properties.
then
generate
set
candidate
molecules,
which
analyzed
via
their
structure,
charge
distribution,
other
features.
validate
as
predicted,
increased
dipole
moment
polarizability
indeed
achieved
in
designed
anticipate
an
increasing
integration
these
techniques
into
workflow,
ultimately
enabling
development
innovative
solutions
address
wide
range
societal
challenges.
conclude
with
critical
discussion
challenges
opportunities
AI
engineering,
analysis
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 18, 2024
Abstract
Language
model
assistants
have
transformed
how
researchers
interact
with
computational
tools,
offering
unprecedented
capabilities
in
understanding
and
generating
complex
scientific
queries.
We
introduce
a
language
assistant
for
biocatalysis
(LM-ABC),
tool
designed
to
streamline
workflows
enzyme
engineering
research.
LM-ABC
integrates
large
domain-specific
modules
facilitate
research
through
natural
inputs.
Its
architecture
employs
the
Reasoning
Acting
(ReACT)
framework
dynamic
selection
chaining,
enabling
functionalities
like
binding
site
extraction
molecular
dynamics
simulations.
can
interpret
process
user
queries
form
of
language,
interface
existing
resources
generate
relevant
results
engineering.
Additionally,
is
available
via
both
command-line
web-based
interfaces,
which
lowers
barriers
its
usage
integration
various
disciplines.
Provided
as
open-source
software,
contributes
application
models
biology,
potentially
accelerating
processes.
Molecules,
Journal Year:
2024,
Volume and Issue:
29(24), P. 5923 - 5923
Published: Dec. 16, 2024
Antibodies
play
critical
roles
in
modern
medicine,
serving
as
diagnostics
and
therapeutics
for
various
diseases
due
to
their
ability
specifically
bind
target
antigens.
Traditional
antibody
discovery
optimization
methods
are
time-consuming
resource-intensive,
though
they
have
successfully
generated
antibodies
diagnosing
treating
diseases.
The
advancements
protein
data,
computational
hardware,
machine
learning
(ML)
models
the
opportunity
disrupt
research.
Machine
demonstrated
abilities
design.
These
enable
rapid
silico
design
of
candidates
within
a
few
days,
achieving
approximately
60%
reduction
time
50%
cost
compared
traditional
methods.
This
review
focuses
on
latest
learning-based
developments.
We
briefly
discuss
limitations
then
explore
methodologies.
also
focus
future
research
directions,
including
developing
Antibody
Design
AI
Agents
data
foundries,
alongside
ethical
regulatory
considerations
essential
adopting
learning-driven
designs.
Journal of Chemical Information and Modeling,
Journal Year:
2024,
Volume and Issue:
65(1), P. 62 - 70
Published: Dec. 17, 2024
Large
language
models
(LLMs)
have
transformed
natural
processing,
enabling
advanced
human-machine
communication.
Similarly,
in
computational
biology,
protein
sequences
are
interpreted
as
language,
facilitating
the
creation
of
large
(PLLMs).
However,
applying
PLLMs
requires
specialized
preprocessing
and
script
development,
increasing
complexity
their
use.
Researchers
integrated
LLMs
with
to
develop
automated
analysis
tools
address
these
challenges,
simplifying
analytical
workflows.
Existing
technologies
often
require
substantial
human
intervention
for
specific
protein-related
tasks,
maintaining
high
barriers
implementing
systems.
Here,
we
propose
ProtChat,
an
AI
multiagent
system
that
integrates
inference
capabilities
task-planning
abilities
LLMs.
ProtChat
GPT-4
multiple
PLLMs,
like
ESM
MASSA,
automate
tasks
such
property
prediction
protein–drug
interactions
without
intervention.
This
agent
enables
users
input
instructions
directly,
significantly
improving
efficiency
usability,
making
it
suitable
researchers
a
background.
Experiments
demonstrate
can
complex
accurately,
avoiding
manual
delivering
results
rapidly.
advancement
opens
new
research
avenues
biology
drug
discovery.
Future
applications
may
extend
ProtChat's
broader
biological
data
analysis.
Our
code
publicly
available
at
github.com/SIAT-code/ProtChat.
Molecular Systems Design & Engineering,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
We
report
the
use
of
a
multiagent
generative
artificial
intelligence
framework,
X-LoRA-Gemma
large
language
model
(LLM),
to
analyze,
design
and
test
molecular
design.
The
model,
inspired
by
biological...