Artificial intelligence for medicine 2025: Navigating the endless frontier
The Innovation Medicine,
Год журнала:
2025,
Номер
unknown, С. 100120 - 100120
Опубликована: Янв. 1, 2025
<p>Artificial
intelligence
(AI)
is
driving
transformative
changes
in
the
field
of
medicine,
with
its
successful
application
relying
on
accurate
data
and
rigorous
quality
standards.
By
integrating
clinical
information,
pathology,
medical
imaging,
physiological
signals,
omics
data,
AI
significantly
enhances
precision
research
into
disease
mechanisms
patient
prognoses.
technologies
also
demonstrate
exceptional
potential
drug
development,
surgical
automation,
brain-computer
interface
(BCI)
research.
Through
simulation
biological
systems
prediction
intervention
outcomes,
enables
researchers
to
rapidly
translate
innovations
practical
applications.
While
challenges
such
as
computational
demands,
software
ethical
considerations
persist,
future
remains
highly
promising.
plays
a
pivotal
role
addressing
societal
issues
like
low
birth
rates
aging
populations.
can
contribute
mitigating
rate
through
enhanced
ovarian
reserve
evaluation,
menopause
forecasting,
optimization
Assisted
Reproductive
Technologies
(ART),
sperm
analysis
selection,
endometrial
receptivity
fertility
remote
consultations.
In
posed
by
an
population,
facilitate
development
dementia
models,
cognitive
health
monitoring
strategies,
early
screening
systems,
AI-driven
telemedicine
platforms,
intelligent
smart
companion
robots,
environments
for
aging-in-place.
profoundly
shapes
medicine.</p>
Язык: Английский
RNA language models predict mutations that improve RNA function
Nature Communications,
Год журнала:
2024,
Номер
15(1)
Опубликована: Дек. 5, 2024
Abstract
Structured
RNA
lies
at
the
heart
of
many
central
biological
processes,
from
gene
expression
to
catalysis.
structure
prediction
is
not
yet
possible
due
a
lack
high-quality
reference
data
associated
with
organismal
phenotypes
that
could
inform
function.
We
present
GARNET
(Gtdb
Acquired
RNa
Environmental
Temperatures),
new
database
for
structural
and
functional
analysis
anchored
Genome
Taxonomy
Database
(GTDB).
links
sequences
experimental
predicted
optimal
growth
temperatures
GTDB
organisms.
Using
GARNET,
we
develop
sequence-
structure-aware
generative
models,
overlapping
triplet
tokenization
providing
encoding
GPT-like
model.
Leveraging
hyperthermophilic
RNAs
in
these
identify
mutations
ribosomal
confer
increased
thermostability
Escherichia
coli
ribosome.
The
GTDB-derived
deep
learning
models
presented
here
provide
foundation
understanding
connections
between
sequence,
structure,
Язык: Английский
Consistent features observed in structural probing data of eukaryotic RNAs
NAR Genomics and Bioinformatics,
Год журнала:
2025,
Номер
7(1)
Опубликована: Янв. 7, 2025
Abstract
Understanding
RNA
structure
is
crucial
for
elucidating
its
regulatory
mechanisms.
With
the
recent
commercialization
of
messenger
vaccines,
profound
impact
on
stability
and
translation
efficiency
has
become
increasingly
evident,
underscoring
importance
understanding
structure.
Chemical
probing
emerged
as
a
powerful
technique
investigating
in
living
cells.
This
approach
utilizes
chemical
probes
that
selectively
react
with
accessible
regions
RNA,
by
measuring
reactivity,
openness
potential
protein
binding
or
base
pairing
can
be
inferred.
Extensive
experimental
data
generated
using
have
significantly
contributed
to
our
However,
it
acknowledge
biases
ensure
an
accurate
interpretation.
In
this
study,
we
comprehensively
analyzed
transcriptome-scale
eukaryotes
report
common
features.
Notably,
all
experiments,
number
bases
modified
was
small,
showing
top
10%
reactivity
well
reflected
known
secondary
structure,
high
were
more
likely
exposed
solvent
low
did
not
reflect
exposure,
which
important
information
analysis
data.
Язык: Английский
mRNA Vaccine Sequence and Structure Design and Optimization: Advances and Challenges
Journal of Biological Chemistry,
Год журнала:
2024,
Номер
unknown, С. 108015 - 108015
Опубликована: Ноя. 1, 2024
Messenger
RNA
(mRNA)
vaccines
have
emerged
as
a
powerful
tool
against
communicable
diseases
and
cancers,
demonstrated
by
their
huge
success
during
the
coronavirus
disease
2019
(COVID-19)
pandemic.
Despite
outstanding
achievements,
mRNA
still
face
challenges
such
stringent
storage
requirements,
insufficient
antigen
expression,
unexpected
immune
responses.
Since
intrinsic
properties
of
molecules
significantly
impact
vaccine
performance,
optimizing
design
is
crucial
in
preclinical
development.
In
this
review,
we
outline
four
key
principles
for
optimal
sequence
design:
enhancing
ribosome
loading
translation
efficiency
through
untranslated
region
(UTR)
optimization,
improving
via
codon
increasing
structural
stability
refining
global
sequence,
extending
in-cell
lifetime
expression
fidelity
adjusting
local
structures.
We
also
explore
recent
advancements
computational
models
designing
sequences
following
these
principles.
By
integrating
current
knowledge,
addressing
challenges,
examining
advanced
methods,
review
aims
to
promote
application
approaches
development
inspire
novel
solutions
existing
obstacles.
Язык: Английский
RNA function follows form – why is it so hard to predict?
Nature,
Год журнала:
2025,
Номер
639(8056), С. 1106 - 1108
Опубликована: Март 24, 2025
Язык: Английский
RNA language models predict mutations that improve RNA function
bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2024,
Номер
unknown
Опубликована: Апрель 6, 2024
Abstract
Structured
RNA
lies
at
the
heart
of
many
central
biological
processes,
from
gene
expression
to
catalysis.
While
advances
in
deep
learning
enable
prediction
accurate
protein
structural
models,
structure
is
not
possible
present
due
a
lack
abundant
high-quality
reference
data
1
.
Furthermore,
available
sequence
are
generally
associated
with
organismal
phenotypes
that
could
inform
function
2–4
We
created
GARNET
(Gtdb
Acquired
RNa
Environmental
Temperatures),
new
database
for
and
functional
analysis
anchored
Genome
Taxonomy
Database
(GTDB)
5
links
sequences
derived
GTDB
genomes
experimental
predicted
optimal
growth
temperatures
organisms.
This
enables
construction
diverse
alignments
be
used
machine
learning.
Using
GARNET,
we
define
minimal
requirements
sequence-
structure-aware
generative
model.
also
develop
GPT-like
language
model
which
overlapping
triplet
tokenization
provides
encoding.
Leveraging
hyperthermophilic
RNAs
these
identified
mutations
ribosomal
confer
increased
thermostability
Escherichia
coli
ribosome.
The
GTDB-
models
presented
here
provide
foundation
understanding
connections
between
sequence,
structure,
function.
Язык: Английский
From computational models of the splicing code to regulatory mechanisms and therapeutic implications
Nature Reviews Genetics,
Год журнала:
2024,
Номер
unknown
Опубликована: Окт. 2, 2024
Язык: Английский
OpenASO: RNA Rescue—designing splice-modulating antisense oligonucleotides through community science
bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2024,
Номер
unknown
Опубликована: Окт. 17, 2024
ABSTRACT
Splice-modulating
antisense
oligonucleotides
(ASOs)
are
precision
RNA-based
drugs
that
becoming
an
established
modality
to
treat
human
disease.
Previously,
we
reported
the
discovery
of
ASOs
target
a
novel,
putative
intronic
RNA
structure
rescue
splicing
multiple
pathogenic
variants
F8
exon
16
cause
hemophilia
A.
However,
conventional
approach
discovering
splice-modulating
is
both
laborious
and
expensive.
Here,
describe
alternative
paradigm
integrates
data-driven
prediction
community
science
discover
ASOs.
Using
splicing-deficient
variant
as
model,
show
25%
top-scoring
molecules
designed
in
Eterna
OpenASO
challenge
have
statistically
significant
impact
on
enhancing
splicing.
Additionally,
distinct
combination
by
players
can
additively
enhance
inclusion
variant.
Together,
our
data
suggests
crowdsourcing
designs
from
citizen
scientists
may
accelerate
with
potential
Язык: Английский
A generative framework for enhanced cell-type specificity in rationally designed mRNAs
bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2024,
Номер
unknown
Опубликована: Дек. 31, 2024
Abstract
mRNA
delivery
offers
new
opportunities
for
disease
treatment
by
directing
cells
to
produce
therapeutic
proteins.
However,
designing
highly
stable
mRNAs
with
programmable
cell
type-specificity
remains
a
challenge.
To
address
this,
we
measured
the
regulatory
activity
of
60,000
5’
and
3’
untranslated
regions
(UTRs)
across
six
types
developed
PARADE
(Prediction
And
RAtional
DEsign
UTRs),
generative
AI
framework
engineer
RNA
tailored
type-specific
activity.
We
validated
testing
15,800
de
novo-designed
sequences
these
lines
identified
many
that
demonstrated
superior
specificity
compared
existing
therapeutics.
PARADE-engineered
UTRs
also
exhibited
robust
tissue-specific
in
animal
models,
achieving
selective
expression
liver
spleen.
leveraged
enhance
stability,
significantly
increasing
protein
output
durability
vivo.
These
advancements
translated
notable
increases
efficacy,
as
PARADE-designed
oncosuppressor
mRNAs,
namely
PTEN
P16,
effectively
reduced
tumor
growth
patient-derived
neuroglioma
xenograft
models
orthotopic
mouse
models.
Collectively,
findings
establish
versatile
platform
safer,
more
precise,
therapies.
Язык: Английский