Synergistic innovations enabled the radiation of anglerfishes in the deep open ocean
Current Biology,
Journal Year:
2024,
Volume and Issue:
34(11), P. 2541 - 2550.e4
Published: May 23, 2024
Major
ecological
transitions
are
thought
to
fuel
diversification,
but
whether
they
contingent
on
the
evolution
of
certain
traits
called
key
innovations1Miller
A.H.
Stroud
J.T.
Losos
J.B.
The
ecology
and
innovations.Trends
Ecol.
Evol.
2023;
38:
122-131https://doi.org/10.1016/j.tree.2022.09.005Abstract
Full
Text
PDF
Scopus
(13)
Google
Scholar
is
unclear.
Key
innovations
routinely
invoked
explain
how
lineages
rapidly
exploit
new
opportunities.1Miller
Scholar,2Stroud
Ecological
Opportunity
Adaptive
Radiation.Annu.
Rev.
Syst.
2016;
47:
507-532https://doi.org/10.1146/annurev-ecolsys-121415-032254Crossref
(317)
Scholar,3Gavrilets
S.
Radiation:
Contrasting
Theory
with
Data.Science.
2009;
323:
732-737https://doi.org/10.1126/science.1157966Crossref
PubMed
(526)
However,
investigations
often
focus
single
rather
than
considering
trait
combinations
that
collectively
produce
effects
interest.4Donoghue
M.J.
Sanderson
Confluence,
synnovation,
depauperons
in
plant
diversification.New
Phytol.
2015;
207:
260-274https://doi.org/10.1111/nph.13367Crossref
(158)
Here,
we
investigate
synergistic
interactions
anglerfishes,
which
include
one
most
species-rich
vertebrate
clades
bathypelagic,
or
"midnight,"
zone
deep
sea:
Ceratioidea.5Pietsch
T.W.
Oceanic
Anglerfishes:
Extraordinary
Diversity
Deep
Sea.1st
ed.
University
California
Press,
2009Crossref
Ceratioids
only
vertebrates
possess
sexual
parasitism,
wherein
males
temporarily
attach
permanently
fuse
females
mate.6Pietsch
Dimorphism,
Parasitism
Sex:
Reproductive
Strategies
among
Deepsea
Ceratioid
Anglerfishes.Copeia.
1976;
1976:
781-793https://doi.org/10.2307/1443462Crossref
Scholar,7Pietsch
sex
revisited:
modes
reproduction
deep-sea
ceratioid
anglerfishes
(Teleostei:
Lophiiformes).Ichthyol.
Res.
2005;
52:
207-236https://doi.org/10.1007/s10228-005-0286-2Crossref
(83)
We
show
rapid
transition
ancestrally
benthic
into
pelagic
habitats
occurred
during
a
period
major
global
warming
50–35
million
years
ago.8Westerhold
T.
Marwan
N.
Drury
A.J.
Liebrand
D.
Agnini
C.
Anagnostou
E.
Barnet
J.S.K.
Bohaty
S.M.
De
Vleeschouwer
Florindo
F.
et
al.An
astronomically
dated
record
Earth's
climate
its
predictability
over
last
66
years.Science.
2020;
369:
1383-1387https://doi.org/10.1126/science.aba6853Crossref
Scholar,9Meckler
A.N.
Sexton
P.F.
Piasecki
A.M.
Leutert
T.J.
Marquardt
J.
Ziegler
M.
Agterhuis
Lourens
L.J.
Rae
J.W.B.
al.Cenozoic
ocean
temperature
from
clumped
isotope
thermometry.Science.
2022;
377:
86-90https://doi.org/10.1126/science.abk0604Crossref
(33)
This
coincided
origins
increase
probability
successful
once
mate
found
midnight
zone,
largest
habitat.5Pietsch
Scholar,6Pietsch
Our
reconstruction
evolutionary
history
loss
immune
genes
support
fusing
have
convergently
degenerated
their
adaptive
immunity.
find
degenerate
body
size
dimorphism,
both
variably
present
outside
radiation,
likely
promoted
bathypelagic
zone.
These
results
separate
physiological,
morphological,
reproductive
systems
can
interact
synergistically
drive
subsequent
diversification
novel
environments.
Language: Английский
Explosion of goby fish diversity at the Eocene-Oligocene transition
Molecular Phylogenetics and Evolution,
Journal Year:
2025,
Volume and Issue:
unknown, P. 108342 - 108342
Published: March 1, 2025
Language: Английский
Phylogenomics establishes an Early Miocene reconstruction of reef vertebrate diversity
Science Advances,
Journal Year:
2025,
Volume and Issue:
11(19)
Published: May 7, 2025
Oceans
blanket
more
than
two-thirds
of
Earth’s
surface,
yet
marine
biodiversity
is
disproportionately
concentrated
in
coral
reefs.
Investigating
the
origins
this
exceptional
diversity
crucial
for
predicting
how
reefs
will
respond
to
anthropogenic
disturbances.
Here,
we
use
a
genome-scale
dataset
reconstruct
evolutionary
history
wrasses
and
parrotfishes
(
Labridae
),
which
rank
among
most
species-rich
ecologically
diverse
lineages
reef
fishes.
We
show
that
major
labrid
clades
experienced
pulses
innovation
accelerated
diversification
during
Miocene
approximately
20
15
million
years
ago
origin
no
single
phenotypic
trait
can
explain.
These
results
draw
parallels
histories
many
after
mass
extinctions
corroborate
recent
fossil
evidence
an
Early
extinction
event
oceanic
vertebrates
changes
faunal
composition.
Our
data
provide
genomic
reassembly
faunas.
Language: Английский
The many origins of extremophile fishes
Proceedings of the Royal Society B Biological Sciences,
Journal Year:
2025,
Volume and Issue:
292(2046)
Published: May 1, 2025
Extremophiles
survive
in
environments
that
are
considered
uninhabitable
for
most
living
things.
The
evolution
of
extremophiles
is
great
interest
because
how
they
may
have
contributed
to
the
assembly
ecosystems,
yet
evolutionary
dynamics
drive
extremophile
remain
obscure.
Here,
we
investigate
Zoarcoidea
,
a
lineage
over
300
species
fishes
colonized
both
poles,
deep
sea,
and
hydrothermal
vents.
We
show
pulse
habitat
invasion
occurred
across
20
different
zoarcoid
lineages
within
last
8
million
years,
far
after
origin
their
prototypical
innovation
surviving
cold
water:
type
III
antifreeze
protein.
Instead,
secondary
burst
anatomical,
physiological
life
history
traits
handful
founder
events
extreme
ecosystems
appear
propelled
diversification.
These
results
decentralize
role
changes
organismal
biology
shaping
radiations
provide
clear
example
combination
ancient
adaptations
recent
contingency
shapes
origination
challenging
habitats.
Language: Английский
Reproductive innovation enabled radiation in the deep sea during an ecological crisis
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 15, 2024
Abstract
Major
ecological
transitions
are
thought
to
fuel
evolutionary
radiations,
but
whether
they
contingent
on
the
evolution
of
certain
traits
is
unclear.
We
show
that
rapid
transition
anglerfishes
into
pelagic
habitats
during
a
period
major
global
warming
coincided
with
origins
sexual
parasitism,
in
which
male
temporarily
attach
or
permanently
fuse
females
mate.
A
phylogenomic
reconstruction
history
provides
strong
inference
for
convergent
permanently-fusing
deep-sea
and
their
degenerate
immune
genes.
Our
results
support
parasitism
was
enabled
by
degeneration
adaptive
immunity
ancestral
size
dimorphism.
The
combination
these
facilitated
novel
ecologies
available
deep
open
oceans
after
evolving
from
benthic
ancestors.
These
how
seemingly
unrelated
physiological
reproductive
interact
synergistically
drive
radiation
environments.
Language: Английский