Scientific Reports,
Journal Year:
2016,
Volume and Issue:
6(1)
Published: June 30, 2016
Abstract
Plant
microbiome
and
its
manipulation
herald
a
new
era
for
plant
biotechnology
with
the
potential
to
benefit
sustainable
crop
production.
However,
studies
evaluating
diversity,
structure
impact
of
microbiota
in
economic
important
crops
are
still
rare.
Here
we
describe
comprehensive
inventory
assemblage
bacterial
fungal
communities
associated
sugarcane.
Our
analysis
identified
23,811
OTUs
an
unexpected
11,727
inhabiting
endophytic
exophytic
compartments
roots,
shoots
leaves.
These
originate
primarily
from
native
soil
around
plants
colonize
organs
distinct
patterns.
The
sample
type
is
primary
driver
community
organ
compartment
plays
major
role
assemblage.
We
core
composed
less
than
20%
total
microbial
richness
but
accounting
over
90%
relative
abundance.
roots
showed
89
families,
19
which
accounted
44%
Stalks
dominated
by
groups
yeasts
that
represent
12%
described
here
comprise
whose
biological
underlies
traits
growth
fermentative
processes.
Microbiome,
Journal Year:
2018,
Volume and Issue:
6(1)
Published: Feb. 12, 2018
Microorganisms
serve
important
functions
within
numerous
eukaryotic
host
organisms.
An
understanding
of
the
variation
in
plant
niche-level
microbiome,
from
rhizosphere
soils
to
canopies,
is
imperative
gain
a
better
how
both
structural
and
functional
processes
microbiomes
impact
health
overall
holobiome.
Using
Populus
trees
as
model
ecosystem,
we
characterized
archaeal/bacterial
fungal
microbiome
across
30
different
tissue-level
niches
replicated
deltoides
hybrid
trichocarpa
×
individuals
using
16S
ITS2
rRNA
gene
analyses.
Our
analyses
indicate
that
varied
primarily
broader
habitat
classes
(leaves,
stems,
roots,
soils)
regardless
genotype,
except
for
communities
leaf
niches,
which
were
greatly
impacted
by
genotype.
Differences
between
tree
genotypes
are
evident
elevated
presence
two
potential
pathogens,
Marssonina
brunnea
Septoria
sp.,
on
P.
may
turn
be
contributing
divergence
composition.
Archaeal/bacterial
diversity
increased
leaves,
stem,
root,
soil
habitats,
whereas
was
greatest
stems
soils.
This
study
provides
holistic
structure
bioenergy
relevant
host,
one
most
complete
any
plant.
As
such,
it
constitutes
detailed
atlas
or
map
further
hypothesis
testing
significance
individual
microbial
taxa
specific
habitats
baseline
comparisons
other
species.
Current Plant Biology,
Journal Year:
2020,
Volume and Issue:
23, P. 100161 - 100161
Published: July 1, 2020
Plants
live
in
association
with
diverse
microorganisms,
collectively
called
the
microbiome.
These
microbes
either
inside
(endosphere)
or
outside
(episphere)
of
plant
tissues.
Microbes
play
important
roles
ecology
and
physiology
plants.
Significant
progress
has
been
made
revealing
structure
dynamics
microbiome
last
few
years.
Various
factors
related
to
host,
as
well
environment
influence
community
composition
diversity
This
review
aimed
provide
a
general
account
(host,
microbe
environment)
that
drive
microbial
plant.
First,
we
gave
an
overview
aboveground
belowground
microbiomes.
Next,
discussed
which
host
are
involved
variation
plants
followed
by
importance
microbe-microbe
interactions
elements
structuring
Scientific Reports,
Journal Year:
2016,
Volume and Issue:
6(1)
Published: June 30, 2016
Abstract
Plant
microbiome
and
its
manipulation
herald
a
new
era
for
plant
biotechnology
with
the
potential
to
benefit
sustainable
crop
production.
However,
studies
evaluating
diversity,
structure
impact
of
microbiota
in
economic
important
crops
are
still
rare.
Here
we
describe
comprehensive
inventory
assemblage
bacterial
fungal
communities
associated
sugarcane.
Our
analysis
identified
23,811
OTUs
an
unexpected
11,727
inhabiting
endophytic
exophytic
compartments
roots,
shoots
leaves.
These
originate
primarily
from
native
soil
around
plants
colonize
organs
distinct
patterns.
The
sample
type
is
primary
driver
community
organ
compartment
plays
major
role
assemblage.
We
core
composed
less
than
20%
total
microbial
richness
but
accounting
over
90%
relative
abundance.
roots
showed
89
families,
19
which
accounted
44%
Stalks
dominated
by
groups
yeasts
that
represent
12%
described
here
comprise
whose
biological
underlies
traits
growth
fermentative
processes.