Journal of Extracellular Vesicles,
Journal Year:
2024,
Volume and Issue:
13(8)
Published: Aug. 1, 2024
Inflammatory
bowel
disease
(IBD)
is
a
chronic
disorder
characterized
by
recurrent
gastrointestinal
inflammation,
lacking
precise
aetiology
and
definitive
cure.
The
gut
microbiome
vital
in
preventing
treating
IBD
due
to
its
various
physiological
functions.
In
the
interplay
between
human
health,
extracellular
vesicles
secreted
bacteria
(BEVs)
are
key
mediators.
Herein,
we
explore
role
of
Roseburia
intestinalis
(R)-derived
EVs
(R-EVs)
as
potent
anti-inflammatory
mediators
dextran
sulfate
sodium-induced
colitis.
R
was
selected
an
optimal
BEV
producer
for
treatment
through
ANCOM
analysis.
R-EVs
with
76
nm
diameter
were
isolated
from
using
tangential
flow
filtration
system.
Orally
administered
effectively
accumulated
inflamed
colonic
tissues
increased
abundance
Bifidobacterium
on
microbial
changes,
inhibiting
inflammation
prompting
intestinal
recovery.
Due
presence
Ile-Pro-Ile
vesicular
structure,
reduced
DPP4
activity
tissue
active
GLP-1,
thereby
downregulating
NFκB
STAT3
via
PI3K
pathway.
Our
results
shed
light
impact
BEVs
recovery
alteration
IBD.
EBioMedicine,
Journal Year:
2021,
Volume and Issue:
66, P. 103293 - 103293
Published: April 1, 2021
The
gut
microbiome
and
the
intestinal
immune
system
are
driving
contributors
to
inflammatory
bowel
diseases
(IBD).
Both
have
an
important
signalling
factor
in
common:
short-chain
fatty
acids
(SCFAs).
SCFAs
(acetate,
propionate
butyrate)
produced
by
bacterial
fermentation
exert
several
effects
on
host
metabolism
system.
This
review
provides
overview
of
current
knowledge
these
effects,
with
specific
focus
energy
metabolism,
barrier,
system,
disease
activity
IBD.
To
conclude,
more
research
is
needed
cross-feeding
mechanisms
microbiome,
as
well
therapeutic
potential
different
models.
Also
randomized
controlled
trials
prospective
cohort
studies
should
investigate
clinical
impact
SCFA
administration.
Frontiers in Nutrition,
Journal Year:
2021,
Volume and Issue:
8
Published: June 28, 2021
The
genome
of
gut
microbes
encodes
a
collection
enzymes
whose
metabolic
functions
contribute
to
the
bioavailability
and
bioactivity
unabsorbed
(poly)phenols.
Datasets
from
high
throughput
sequencing,
metabolome
measurements,
other
omics
have
expanded
understanding
different
modes
actions
by
which
(poly)phenols
modulate
microbiome
conferring
health
benefits
host.
Progress
been
made
identify
direct
prebiotic
effects
(poly)phenols;
albeit
up
date,
these
compounds
are
not
recognized
as
prebiotics
sensu
stricto
.
Interestingly,
certain
probiotics
strains
an
enzymatic
repertoire,
such
tannase,
α-L-rhamnosidase,
phenolic
acid
reductase,
involved
in
transformation
into
bioactive
metabolites.
In
vivo
studies
demonstrated
that
(poly)phenol-transforming
bacteria
thrive
when
provided
with
substrates.
However,
taxonomically
distinct
symbionts
phenolic-metabolizing
activity
has
still
significantly
promoted
This
is
case
Akkermansia
muciniphila
,
so-called
antiobesity
bacterium,
responds
positively
may
be
partially
responsible
for
formerly
attributed
molecules.
We
surmise
broad
antimicrobial
action
free
ecological
niches
occupied
competing
bacteria,
thereby
allowing
bloom
beneficial
bacteria.
review
explores
capacity
promote
through
their
collaborative
bacterial
utilization
inhibitory
on
potential
pathogenic
species.
propose
term
duplibiotic
describe
substrate
modulating
microbiota
both
action.
(Poly)phenol
effect
could
participate
blunting
disturbance
dysbiosis,
positioning
dietary
strategies
therapeutic
potential.
Environment International,
Journal Year:
2021,
Volume and Issue:
154, P. 106560 - 106560
Published: April 16, 2021
The
extensive
use
of
phthalic
acid
esters
(PAEs)
has
led
to
their
widespread
distribution
across
various
environments.
As
PAEs
pose
significant
threats
human
health,
it
is
urgent
develop
efficient
strategies
eliminate
them
from
Bacteria-driven
PAE
biodegradation
been
considered
as
an
inexpensive
yet
effective
strategy
restore
the
contaminated
Despite
great
advances
in
bacterial
culturing
and
sequencing,
inherent
complexity
indigenous
microbial
community
hinders
us
mechanistically
understand
situ
efficiently
harness
degrading
power
bacteria.
synthetic
ecology
provides
a
simple
controllable
model
system
address
this
problem.
In
review,
we
focus
on
current
progress
mediated
by
isolates
communities,
discuss
prospective
PAE-degrading
communities
research.
It
anticipated
that
theories
approaches
will
revolutionize
study
bacteria-driven
provide
novel
insights
for
developing
bioremediation
solutions.
International Journal of Molecular Sciences,
Journal Year:
2022,
Volume and Issue:
23(1), P. 480 - 480
Published: Jan. 1, 2022
Diabetes
mellitus
is
a
significant
clinical
and
therapeutic
problem
because
it
can
lead
to
serious
long-term
complications.
Its
pathogenesis
not
fully
understood,
but
there
are
indications
that
dysbiosis
play
role
in
the
development
of
diabetes,
or
appears
during
course
disease.
Changes
microbiota
composition
observed
both
type
1
diabetes
(T1D)
2
(T2D)
patients.
These
modifications
associated
with
pro-inflammation,
increased
intestinal
permeability,
endotoxemia,
impaired
β-cell
function
insulin
resistance.
This
review
summarizes
gut
healthy
individuals
changes
bacterial
be
T1D
T2D.
It
also
presents
new
developments
therapy
based
on
influencing
as
promising
method
alter
diabetes.
Moreover,
highlights
lacking
data
suggests
future
directions
needed
prove
causal
relationship
between
ACS Chemical Neuroscience,
Journal Year:
2023,
Volume and Issue:
14(10), P. 1717 - 1763
Published: May 8, 2023
Gut
microbiota
includes
a
vast
collection
of
microorganisms
residing
within
the
gastrointestinal
tract.
It
is
broadly
recognized
that
gut
and
brain
are
in
constant
bidirectional
communication,
which
its
metabolic
production
major
component,
form
so-called
microbiome–brain
axis.
Disturbances
homeostasis
caused
by
imbalance
their
functional
composition
activities,
known
as
dysbiosis,
cause
dysregulation
these
pathways
trigger
changes
blood–brain
barrier
permeability,
thereby
causing
pathological
malfunctions,
including
neurological
disorders.
In
turn,
can
affect
structure
function
through
autonomic
nervous
system
regulating
motility,
intestinal
transit
secretion,
permeability.
Here,
we
examine
data
from
CAS
Content
Collection,
largest
published
scientific
information,
analyze
publication
landscape
recent
research.
We
review
advances
knowledge
related
to
human
microbiome,
complexity
functionality,
communication
with
central
system,
effect
axis
on
mental
health.
discuss
correlations
between
various
diseases,
specifically
also
explore
metabolites
regard
impact
associated
diseases.
Finally,
assess
clinical
applications
gut-microbiota-related
substances
development
pipelines.
hope
this
serve
useful
resource
understanding
current
emerging
field
an
effort
further
solving
remaining
challenges
fulfilling
potential.
Microbiome,
Journal Year:
2023,
Volume and Issue:
11(1)
Published: March 29, 2023
Abstract
Background
Microbiome
dynamics
are
both
crucial
indicators
and
potential
drivers
of
human
health,
agricultural
output,
industrial
bio-applications.
However,
predicting
microbiome
is
notoriously
difficult
because
communities
often
show
abrupt
structural
changes,
such
as
“dysbiosis”
in
microbiomes.
Methods
We
integrated
theoretical
frameworks
empirical
analyses
with
the
aim
anticipating
drastic
shifts
microbial
communities.
monitored
48
experimental
microbiomes
for
110
days
observed
that
various
community-level
events,
including
collapse
gradual
compositional
occurred
according
to
a
defined
set
environmental
conditions.
analyzed
time-series
data
based
on
statistical
physics
non-linear
mechanics
describe
characteristics
examine
predictability
major
community
structure.
Results
confirmed
changes
through
could
be
described
between
“alternative
stable
states“
or
around
complex
attractors.
Furthermore,
collapses
structure
were
successfully
anticipated
by
means
diagnostic
threshold
“energy
landscape”
analysis
stability
index
nonlinear
mechanics.
Conclusions
The
results
indicate
events
can
forecasted
extending
classic
ecological
concepts
scale
species-rich
systems.
Biomimetics,
Journal Year:
2025,
Volume and Issue:
10(2), P. 73 - 73
Published: Jan. 24, 2025
The
gut
microbiota
is
a
complex
and
dynamic
ecosystem
that
plays
fundamental
role
in
human
health
by
regulating
immunity,
metabolism,
the
gut–brain
axis.
Beyond
its
critical
physiological
functions,
it
has
emerged
as
rich
source
of
inspiration
for
biomimetic
innovations
healthcare
biotechnology.
This
review
explores
transformative
potential
microbiota-based
biomimetics,
focusing
on
key
biological
mechanisms
such
resilience,
self-regulation,
quorum
sensing.
These
have
inspired
development
innovative
applications,
including
personalized
probiotics,
synbiotics,
artificial
microbiomes,
bioinspired
biosensors,
bioremediation
systems.
Such
technologies
aim
to
emulate
optimize
intricate
functions
microbial
ecosystems,
addressing
challenges
environmental
sustainability.
integration
advanced
technologies,
intelligence,
bioengineering,
multi-omics
approaches,
further
accelerated
biomimetics.
tools
enable
precision
therapies
tailored
individual
profiles,
enhance
efficacy
diagnostic
systems,
facilitate
design
environmentally
sustainable
solutions,
waste-to-energy
systems
platforms.
Emerging
areas
innovation,
gut-on-chip
models
synthetic
biology,
offer
unprecedented
opportunities
studying
applying
principles
controlled
environments.
Despite
these
advancements,
remain.
replication
complexity
environments,
ethical
concerns
regarding
genetically
engineered
microorganisms,
equitable
access
are
hurdles
must
be
addressed.
underscores
importance
interdisciplinary
collaboration
public
awareness
overcoming
barriers
ensuring
responsible
solutions.
By
leveraging
biomimetics
represents
promising
frontier
approach
revolutionize
therapeutic
strategies,
redefine
tools,
address
global
challenges,
paving
way
more
personalized,
efficient,
future
medicine