New Phytologist,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 5, 2024
Summary
The
plant
microbiota
research
field
has
rapidly
shifted
from
efforts
aimed
at
gaining
a
descriptive
understanding
of
composition
to
focus
on
acquiring
mechanistic
insights
into
functions
and
assembly
rules.
This
evolution
was
driven
by
our
ability
establish
comprehensive
collections
plant‐associated
microbes
reconstruct
meaningful
microbial
synthetic
communities
(SynComs).
We
argue
that
this
powerful
deconstruction–reconstruction
strategy
can
be
used
reconstitute
increasingly
complex
ecosystems
(SynEcos)
mechanistically
understand
high‐level
biological
organization.
transitioning
simple
more
advanced,
fully
tractable
programmable
gnotobiotic
SynEcos
is
ongoing
aims
rationally
simplifying
natural
engineering
them.
Such
reconstitution
ecology
approaches
represent
an
untapped
for
bridging
the
gap
between
functional
biology
unraveling
plant–microbiota–environment
mechanisms
modulate
ecosystem
health,
assembly,
functioning.
Trends in Microbiology,
Journal Year:
2022,
Volume and Issue:
31(4), P. 346 - 355
Published: Dec. 5, 2022
Despite
evidence
that
the
microbiome
extends
host
genetic
and
phenotypic
traits,
information
on
how
is
transmitted
maintained
across
generations
remains
fragmented.
For
seed-bearing
plants,
seeds
harbor
a
distinct
play
unique
role
by
linking
one
generation
to
next.
Studies
microbial
inheritance,
process
we
suggest
including
both
vertical
transmission
subsequent
migration
of
seed
microorganisms
new
plant,
thus
become
essential
for
our
understanding
evolutionary
potential
host–microbiome
coevolution.
We
propose
dividing
inheritance
into
three
stages:
(i)
plant
seed,
(ii)
dormancy,
(iii)
seedling.
discuss
factors
affecting
assembly
during
stages,
highlight
future
research
directions,
emphasize
implications
fundamental
science
society.
Annual Review of Phytopathology,
Journal Year:
2023,
Volume and Issue:
61(1), P. 257 - 277
Published: May 17, 2023
The
microbiota
populating
the
plant–soil
continuum
defines
an
untapped
resource
for
sustainable
crop
production.
host
plant
is
a
driver
taxonomic
composition
and
function
of
these
microbial
communities.
In
this
review,
we
illustrate
how
genetic
determinants
have
been
shaped
by
domestication
diversification.
We
discuss
heritable
component
recruitment
may
represent,
at
least
partially,
selection
functions
underpinning
growth,
development,
health
their
plants
magnitude
heritability
influenced
environment.
host–microbiota
interactions
can
be
treated
as
external
quantitative
trait
review
recent
studies
associating
genetics
with
microbiota-based
traits.
also
explore
results
reductionist
approaches,
including
synthetic
communities,
to
establish
causal
relationships
between
phenotypes.
Lastly,
propose
strategies
integrate
manipulation
into
programs.
Although
detailed
understanding
when
deployed
breeding
purposes
still
lacking,
argue
that
advances
in
genomics
are
likely
accelerate
wider
applications
plant–microbiota
agriculture.
Microbial Biotechnology,
Journal Year:
2023,
Volume and Issue:
16(12), P. 2212 - 2222
Published: July 25, 2023
Abstract
The
utilization
of
microbial
inoculants
in
the
realm
sustainable
agricultural
and
ecosystem
restoration
has
witnessed
a
surge
recent
decades.
This
rise
is
largely
attributed
to
advancements
our
understanding
plant–microbe
interactions,
urgency
reduce
dependence
on
agrochemicals
growing
societal
demand
for
strategies
management.
However,
despite
rapid
growth
bio‐inoculants
sector,
certain
limitations
persist
concerning
their
efficacy
performance
under
field
condition.
Here,
we
propose
that
seed
biopriming,
an
effective
inoculant
technique
integrating
both
biological
agents
(the
priming
beneficial
microbes
seeds)
physiological
aspects
(hydration
seeds
improved
metabolically
activity),
significant
potential
mitigate
these
limitations.
method
increases
protection
against
soil‐borne
pathogens
soil
pollutants,
such
as
salts
heavy
metals,
while
promoting
germination
rate
uniformity,
leading
overall
primary
productivity
health.
Furthermore,
argue
coating
can
facilitate
transgenerational
associations
microbes,
refine
plant
microbiomes,
maintain
legacies
microflora.
review
article
aims
improve
biopriming
approach
potent
valuable
tool
achieving
agriculture
successful
restoration.
FEMS Microbiology Ecology,
Journal Year:
2024,
Volume and Issue:
100(4)
Published: March 12, 2024
Abstract
Synthetic
Communities
(SynComs)
are
being
developed
and
tested
to
manipulate
plant
microbiota
improve
health.
To
date,
only
few
studies
proposed
the
use
of
SynCom
on
seed
despite
its
potential
for
engineering.
We
presented
a
simple
effective
seedling
engineering
method
using
inoculation
seeds.
The
was
successful
wide
diversity
compositions
bacterial
strains
that
representative
common
bean
microbiota.
First,
this
enables
modulation
composition
community
size.
Then,
SynComs
strongly
outcompeted
native
potting
soil
contributed
average
80%
showed
strain
abundance
main
driver
an
colonization.
Also,
selection
partly
involved
in
colonization
capacities
since
affiliated
Enterobacteriaceae
Erwiniaceae
were
good
colonizers
while
Bacillaceae
Microbacteriaceae
poor
colonizers.
Additionally,
engineered
modified
recruitment
assembly
rhizosphere
through
priority
effects.
This
study
shows
seeds
represents
promising
approach
consequence
fitness.
FEMS Microbiology Ecology,
Journal Year:
2024,
Volume and Issue:
100(3)
Published: Feb. 13, 2024
Abstract
The
holobiont
Holobiont
theory
is
more
than
80
years
old,
while
the
importance
of
microbial
communities
for
plant
holobionts
was
already
identified
by
Lorenz
Hiltner
a
century
ago.
Both
concepts
are
strongly
supported
results
from
new
field
microbiome
research.
Here,
we
present
ecological
and
genetic
features
that
underpin
principles
shared
governance
between
hosts
microbes
summarize
relevance
in
context
global
change.
Moreover,
uncover
knowledge
gaps
arise
when
integrating
broader
perspective
holobiome
as
well
one
planetary
health
concepts.
Action
needed
to
consider
interacting
at
scale,
prediction
control
function
improve
human
environmental
outcomes.
Environmental Microbiome,
Journal Year:
2025,
Volume and Issue:
20(1)
Published: Feb. 3, 2025
Plant
endophytes,
comprising
non-pathogenic
bacteria,
fungi,
and
archaea,
inhabit
various
plant
parts,
including
roots,
stems,
leaves,
seeds.
These
microorganisms
play
a
crucial
role
in
development
by
enhancing
germination,
growth,
stress
resilience.
Seed
particular,
represent
the
most
adapted
conserved
segment
of
microbiota,
significantly
influencing
initial
stages
growth
microbial
community
establishment.
This
study
investigates
impact
environmental
genotypic
factors
on
endophytic
communities
Chenopodium
quinoa
Willd.
(quinoa),
crop
notable
for
its
adaptability
nutritional
value.
We
aimed
to
characterize
core
seeds
roots
from
two
distinct
genotypes
under
well-watered
(WW)
water-deficit
(WD)
conditions,
utilizing
soil
infusions
as
inoculants
explore
potential
changes
these
endophytes.
Our
findings
reveal
with
exhibiting
high
degree
conservation
their
microbiome,
even
between
maternal
offspring
seeds,
specific
bacterial
taxa
showing
only
minor
differences.
Tissue
specificity
emerged
key
factor,
maintaining
stable
community,
while
exhibited
more
pronounced
shifts,
highlighting
tissue-dependent
patterns
enrichment.
The
results
highlight
stability
varying
water
conditions
across
different
genotypes,
emphasizing
tissue
shaping
associations.
suggest
that
quinoa-associated
particularly
those
may
drought
Understanding
dynamics
plant-microbe
interactions
is
vital
developing
stress-resilient
varieties,
supporting
sustainable
agricultural
practices,
ensuring
food
security
face
climate
change
challenges.
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 28, 2025
Abstract
Seeds
harbor
diverse
microbial
communities,
including
beneficial
microbes
that
play
a
vital
role
in
protecting
plants
from
seed-borne
pathogens.
Despite
their
critical
importance,
the
molecular
mechanisms
driving
intermicrobial
competition
within
seed
microbiome
remain
poorly
understood,
limiting
potential
to
optimize
inoculation
strategies.
In
this
study,
we
evaluated
inhibitory
of
30
bacterial
strains
against
phytopathogen
Xanthomonas
campestris
pv.
8004
(Xcc8004).
We
identified
Pseudomonas
lactucae
CFBP13502
as
potent
inhibitor
Xcc8004,
mediated
by
exometabolites
specifically
induced
presence
Lysobacterales
(formerly
Xanthomonadales).
Transcriptomic
analysis
revealed
upregulation
gene
cluster
involved
biosynthesis
lipopeptide
siderophore
biosynthesis.
Gene
deletion
confirmed
is
essential
for
growth
inhibition
Xcc8004.
Furthermore,
iron
supplementation
abolished
effect,
providing
strong
evidence
chelation.
Through
comparative
metabolomics,
elucidated
structure
novel
family
siderophores,
which
named
lactuchelins,
produced
CFBP13502.
Our
findings
provide
first
competitive
exclusion
at
interface,
highlighting
lactuchelins
promising
avenue
development
seed-based
biocontrol
strategies
phytopathogens.