Conservation Biology,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 12, 2024
Abstract
Emerging
infectious
diseases
are
increasingly
recognized
as
a
significant
threat
to
global
biodiversity
conservation.
Elucidating
the
relationship
between
pathogens
and
host
microbiome
could
lead
novel
approaches
for
mitigating
disease
impacts.
Pathogens
can
alter
by
inducing
dysbiosis,
an
ecological
state
characterized
reduction
in
bacterial
alpha
diversity,
increase
pathobionts,
or
shift
beta
diversity.
We
used
snake
fungal
(SFD;
ophidiomycosis),
system
examine
how
emerging
pathogen
may
induce
dysbiosis
across
two
experimental
scales.
quantitative
polymerase
chain
reaction,
amplicon
sequencing,
deep
learning
neural
network
characterize
skin
of
free‐ranging
snakes
broad
phylogenetic
spatial
extent.
Habitat
suitability
models
were
find
variables
associated
with
presence
on
landscape.
also
conducted
laboratory
study
northern
watersnakes
temporal
changes
following
inoculation
Ophidiomyces
ophidiicola
.
Patterns
characteristic
found
at
both
scales,
nonlinear
alterations
although
structural‐level
dispersion
differed
field
contexts.
The
was
far
more
accurate
(99.8%
positive
predictive
value
[PPV])
predicting
than
other
analytic
techniques
(36.4%
PPV).
genus
Pseudomonas
disease‐negative
microbiomes,
whereas,
pathobionts
Chryseobacterium
,
Paracoccus
Sphingobacterium
Geographic
regions
suitable
O.
had
high
loads
(>0.66
maximum
sensitivity
+
specificity).
that
pathogen‐induced
followed
predictable
trends,
be
classified
analyses,
habitat
predicted
SFD
pathogen.
ISME Communications,
Journal Year:
2022,
Volume and Issue:
2(1)
Published: Oct. 6, 2022
Abstract
The
many
microbial
communities
around
us
form
interactive
and
dynamic
ecosystems
called
microbiomes.
Though
concealed
from
the
naked
eye,
microbiomes
govern
influence
macroscopic
systems
including
human
health,
plant
resilience,
biogeochemical
cycling.
Such
feats
have
attracted
interest
scientific
community,
which
has
recently
turned
to
machine
learning
deep
methods
interrogate
microbiome
elucidate
relationships
between
its
composition
function.
Here,
we
provide
an
overview
of
how
latest
studies
harness
inductive
prowess
artificial
intelligence
methods.
We
start
by
highlighting
that
data
–
being
compositional,
sparse,
high-dimensional
necessitates
special
treatment.
then
introduce
traditional
novel
discuss
their
strengths
applications.
Finally,
outlook
pipelines,
focusing
on
bottlenecks
considerations
address
them.
Microbial Cell Factories,
Journal Year:
2022,
Volume and Issue:
21(1)
Published: Nov. 23, 2022
Recent
studies
have
demonstrated
that
gut
microbiota
plays
critical
roles
in
various
human
diseases.
High-throughput
technology
has
been
widely
applied
to
characterize
the
microbial
ecosystems,
which
led
an
explosion
of
different
types
molecular
profiling
data,
such
as
metagenomics,
metatranscriptomics
and
metabolomics.
For
analysis
machine
learning
algorithms
shown
be
useful
for
identifying
key
signatures,
discovering
potential
patient
stratifications,
particularly
generating
models
can
accurately
predict
phenotypes.
In
this
review,
we
first
discuss
how
dysbiosis
intestinal
is
linked
disease
development
modulation
strategies
ecosystem
used
treatment.
addition,
introduce
categories
workflows
approaches,
they
perform
integrative
multi-omics
data.
Finally,
review
advances
microbiome
applications
related
challenges.
Based
on
conclude
very
well
suited
these
approaches
microbe-targeted
therapies,
ultimately
help
achieving
personalized
precision
medicine.
International Journal of Network Dynamics and Intelligence,
Journal Year:
2022,
Volume and Issue:
unknown, P. 99 - 110
Published: Dec. 22, 2022
Survey/review
study
A
Mini
Review
of
Node
Centrality
Metrics
in
Biological
Networks
Mengyuan
Wang
1,2,
Haiying
1,
and
Huiru
Zheng
1,*
1
School
Computing,
Ulster
University,
Belfast,
BT15
1ED,
United
Kingdom
2
Scotland’s
Rural
College,
Edinburgh,
EH25
9RG,
*
Correspondence:
[email protected]
Received:
31
October
2022
Accepted:
21
November
Published:
22
December
Abstract:
The
diversity
nodes
a
complex
network
causes
each
node
to
have
varying
significance,
the
important
often
significant
impact
on
structure
function
network.
Although
interpretation
results
biological
networks
must
always
depend
topological
nodes,
there
is
presently
no
consensus
how
use
these
metrics,
most
analyses
result
basic
limited
number
metrics.
To
thoroughly
comprehend
networks,
it
necessary
consistently
understand
notion
centrality.
Therefore,
for
10
typical
nodal
metrics
first
assesses
their
current
applications,
advantages,
disadvantages
as
well
potential
applications.
Then,
review
previous
studies
provided,
suggestions
are
made
correspondingly
purpose
improving
topology
algorithms.
Finally,
following
recommendations
this
study:
(1)
comprehensive
accurate
assessment
centrality
necessitates
multiple
including
both
target
its
surroundings,
density
maximum
neighbourhood
component(DMNC)
can
be
used
complement
other
metrics;
(2)
different
applied
identify
with
functions,
which
mapped
modular
bridging
roles,
susceptibility;
(3)
groups
verified
against
other,
degree
component
(MNC),
eccentricity,
closeness
radiality;
stress
betweenness.
IEEE Access,
Journal Year:
2023,
Volume and Issue:
11, P. 14804 - 14831
Published: Jan. 1, 2023
Multimodal
machine
learning
(MML)
is
a
tempting
multidisciplinary
research
area
where
heterogeneous
data
from
multiple
modalities
and
(ML)
are
combined
to
solve
critical
problems.
Usually,
works
use
single
modality,
such
as
images,
audio,
text,
signals.
However,
real-world
issues
have
become
now,
handling
them
using
of
instead
modality
can
significantly
impact
finding
solutions.
ML
algorithms
play
an
essential
role
by
tuning
parameters
in
developing
MML
models.
This
paper
reviews
recent
advancements
the
challenges
MML,
namely:
representation,
translation,
alignment,
fusion
co-learning,
presents
gaps
challenges.
A
systematic
literature
review
(SLR)
applied
define
progress
trends
on
those
domain.
In
total,
1032
articles
were
examined
this
extract
features
like
source,
domain,
application,
etc.
article
will
help
researchers
understand
constant
state
navigate
selection
future
directions.
Current Research in Biotechnology,
Journal Year:
2024,
Volume and Issue:
7, P. 100211 - 100211
Published: Jan. 1, 2024
The
human
gut
microbiome
is
an
intricate
ecosystem
with
profound
implications
for
host
metabolism,
immune
function,
and
neuroendocrine
activity.
Over
the
years,
studies
have
strived
to
decode
this
microbial
universe,
especially
its
interactions
health
underlying
metabolic
processes.
Traditional
analyses
often
struggle
complex
interplay
within
due
presumptions
of
independence.
In
response,
machine
learning
(ML)
deep
(DL)
provide
advanced
multivariate
non-linear
analytical
tools
that
adeptly
capture
microbiota.
With
influx
data
from
metagenomic
next-generation
sequencing
(mNGS),
there's
increasing
reliance
on
these
artificial
intelligence
(AI)
subsets
derive
actionable
insights.
This
review
delves
into
cutting-edge
ML
techniques
tailored
microbiota
research.
It
further
underscores
potential
in
shaping
clinical
diagnostics,
prognosis,
intervention
strategies,
pointing
a
future
where
computational
methods
bridge
gap
between
knowledge
targeted
interventions.
Chemical Biology & Drug Design,
Journal Year:
2024,
Volume and Issue:
103(3)
Published: March 1, 2024
Abstract
Human
beings
possess
trillions
of
microbial
cells
in
a
symbiotic
relationship.
This
relationship
benefits
both
partners
for
long
time.
The
gut
microbiota
helps
many
bodily
functions
from
harvesting
energy
digested
food
to
strengthening
biochemical
barriers
the
and
intestine.
But
changes
composition
bacteria
that
can
enter
gastrointestinal
tract
cause
infection.
Several
approaches
like
culture‐independent
techniques
such
as
high‐throughput
meta‐omics
projects
targeting
16S
ribosomal
RNA
(rRNA)
sequencing
are
popular
methods
investigate
human
taxonomically
characterizing
communities.
conformation
diversity
should
be
provided
by
whole‐genome
shotgun
metagenomic
site‐specific
community
DNA
associating
genome
mapping,
gene
inventory,
metabolic
remodelling
reformation,
ease
functional
study
microbiota.
Preliminary
examination
therapeutic
potency
dysbiosis‐associated
diseases
permits
investigation
pharmacokinetic‐pharmacodynamic
communities
escalation
treatment
dosage
plan.
Gut
microbiome
is
an
integration
metagenomics
which
has
influenced
field
last
two
decades.
And
incorporation
artificial
intelligence
deep
learning
through
“omics‐based”
microfluidic
evaluation
enhanced
capability
identification
thousands
microbes.
Gut Microbes,
Journal Year:
2024,
Volume and Issue:
16(1)
Published: Aug. 19, 2024
Here,
we
explored
the
vast
potential
of
microbiome-based
interventions
in
preventing
and
managing
non-communicable
diseases
including
obesity,
diabetes,
allergies,
celiac
disease,
inflammatory
bowel
diseases,
malnutrition,
cardiovascular
across
different
life
stages.
We
discuss
intricate
relationship
between
microbiome
emphasizing
on
"window
opportunity"
for
microbe–host
interactions
during
first
years
after
birth.
Specific
biotics
also
live
biotherapeutics
fecal
microbiota
transplantation
emerge
as
pivotal
tools
precision
medicine,
acknowledging
"one
size
doesn't'
fit
all"
aspect.
Challenges
implementation
underscore
need
advanced
technologies,
scientific
transparency,
public
engagement.
Future
perspectives
advocate
understanding
maternal−neonatal
microbiome,
exploring
maternal
exposome
delving
into
human
milk's
role
establishment
restoration
infant
its
influence
over
health
disease.
An
integrated
approach,
employing
multi-omics
accounting
inter-individual
variance
composition
function
appears
central
to
unleash
full
early-life
revolutionizing
healthcare.
Genome Medicine,
Journal Year:
2023,
Volume and Issue:
15(1)
Published: Oct. 31, 2023
Abstract
Background
Genotypes
are
strongly
associated
with
disease
phenotypes,
particularly
in
brain
disorders.
However,
the
molecular
and
cellular
mechanisms
behind
this
association
remain
elusive.
With
emerging
multimodal
data
for
these
mechanisms,
machine
learning
methods
can
be
applied
phenotype
prediction
at
different
scales,
but
due
to
black-box
nature
of
learning,
integrating
modalities
interpreting
biological
challenging.
Additionally,
partial
availability
presents
a
challenge
developing
predictive
models.
Method
To
address
challenges,
we
developed
DeepGAMI,
an
interpretable
neural
network
model
improve
genotype–phenotype
from
data.
DeepGAMI
leverages
functional
genomic
information,
such
as
eQTLs
gene
regulation,
guide
connections.
it
includes
auxiliary
layer
cross-modal
imputation
allowing
latent
features
missing
thus
predicting
phenotypes
single
modality.
Finally,
uses
integrated
gradient
prioritize
various
phenotypes.
Results
We
several
datasets
including
genotype
bulk
cell-type
expression
diseases,
electrophysiology
mouse
neuronal
cells.
Using
cross-validation
independent
validation,
outperformed
existing
classifying
types,
clinical
even
using
(e.g.,
AUC
score
0.79
Schizophrenia
0.73
cognitive
impairment
Alzheimer’s
disease).
Conclusion
demonstrated
that
improves
prioritizes
phenotypic
networks
multiple
complex
brains
diseases.
Also,
prioritized
disease-associated
variants,
genes,
regulatory
linked
providing
novel
insights
into
interpretation
mechanisms.
is
open-source
available
general
use.
Frontiers in Microbiology,
Journal Year:
2025,
Volume and Issue:
15
Published: Jan. 22, 2025
Microbiome
research,
the
study
of
microbial
communities
in
diverse
environments,
has
seen
significant
advances
due
to
integration
deep
learning
(DL)
methods.
These
computational
techniques
have
become
essential
for
addressing
inherent
complexity
and
high-dimensionality
microbiome
data,
which
consist
different
types
omics
datasets.
Deep
algorithms
shown
remarkable
capabilities
pattern
recognition,
feature
extraction,
predictive
modeling,
enabling
researchers
uncover
hidden
relationships
within
ecosystems.
By
automating
detection
functional
genes,
interactions,
host-microbiome
dynamics,
DL
methods
offer
unprecedented
precision
understanding
composition
its
impact
on
health,
disease,
environment.
However,
despite
their
potential,
approaches
face
challenges
research.
Additionally,
biological
variability
datasets
requires
tailored
ensure
robust
generalizable
outcomes.
As
research
continues
generate
vast
complex
datasets,
these
will
be
crucial
advancing
microbiological
insights
translating
them
into
practical
applications
with
DL.
This
review
provides
an
overview
models
discussing
strengths,
uses,
implications
future
studies.
We
examine
how
are
being
applied
solve
key
problems
highlight
potential
pathways
overcome
current
limitations,
emphasizing
transformative
could
field
moving
forward.