IEEE Transactions on Systems Man and Cybernetics Systems,
Journal Year:
2023,
Volume and Issue:
53(12), P. 7415 - 7426
Published: Aug. 14, 2023
Epidemiological
models
based
on
traditional
networks
have
made
important
contributions
to
the
analysis
and
control
of
malware,
disease,
rumor
propagation.
However,
higher-order
are
becoming
a
more
effective
means
for
modeling
epidemic
spread
characterizing
topology
group
interactions.
In
this
article,
we
propose
composite
degree
Markov
chain
approach
(CEDMA)
describe
discrete-time
dynamics
networks.
approach,
nodes
classified
according
number
neighbors
hyperedges
in
different
states
characterize
By
comparing
with
microscopic
CEDMA
can
better
match
numerical
simulations
Monte
Carlo
accurately
capture
discontinuous
phase
transitions
bistability
phenomena
caused
by
particular,
theoretical
solution
well
predict
critical
point
at
continuous
transition
corroborate
existence
susceptible–infectious–susceptible
(SIS)
process.
Moreover,
be
further
extended
depict
susceptible–infectious–recovered
(SIR)
process
Journal of The Royal Society Interface,
Journal Year:
2022,
Volume and Issue:
19(188)
Published: March 1, 2022
Network
science
has
evolved
into
an
indispensable
platform
for
studying
complex
systems.
But
recent
research
identified
limits
of
classical
networks,
where
links
connect
pairs
nodes,
to
comprehensively
describe
group
interactions.
Higher-order
a
link
can
more
than
two
have
therefore
emerged
as
new
frontier
in
network
science.
Since
interactions
are
common
social,
biological
and
technological
systems,
higher-order
networks
recently
led
important
discoveries
across
many
fields
research.
Here,
we
review
these
works,
focusing
particular
on
the
novel
aspects
dynamics
that
emerges
networks.
We
cover
variety
dynamical
processes
thus
far
been
studied,
including
different
synchronization
phenomena,
contagion
processes,
evolution
cooperation
consensus
formation.
also
outline
open
challenges
promising
directions
future
Nature Communications,
Journal Year:
2023,
Volume and Issue:
14(1)
Published: March 23, 2023
Abstract
Higher-order
networks
have
emerged
as
a
powerful
framework
to
model
complex
systems
and
their
collective
behavior.
Going
beyond
pairwise
interactions,
they
encode
structured
relations
among
arbitrary
numbers
of
units
through
representations
such
simplicial
complexes
hypergraphs.
So
far,
the
choice
between
hypergraphs
has
often
been
motivated
by
technical
convenience.
Here,
using
synchronization
an
example,
we
demonstrate
that
effects
higher-order
interactions
are
highly
representation-dependent.
In
particular,
typically
enhance
in
but
opposite
effect
complexes.
We
provide
theoretical
insight
linking
synchronizability
different
hypergraph
structures
(generalized)
degree
heterogeneity
cross-order
correlation,
which
turn
influence
wide
range
dynamical
processes
from
contagion
diffusion.
Our
findings
reveal
hidden
impact
on
dynamics,
highlighting
importance
choosing
appropriate
when
studying
with
nonpairwise
interactions.
Communications Physics,
Journal Year:
2022,
Volume and Issue:
5(1)
Published: April 5, 2022
Abstract
A
deluge
of
new
data
on
real-world
networks
suggests
that
interactions
among
system
units
are
not
limited
to
pairs,
but
often
involve
a
higher
number
nodes.
To
properly
encode
higher-order
interactions,
richer
mathematical
frameworks
such
as
hypergraphs
needed,
where
hyperedges
describe
an
arbitrary
Here
we
systematically
investigate
motifs,
defined
small
connected
subgraphs
in
which
vertices
may
be
linked
by
any
order,
and
propose
efficient
algorithm
extract
complete
motif
profiles
from
empirical
data.
We
identify
different
families
hypergraphs,
characterized
distinct
connectivity
patterns
at
the
local
scale.
also
set
measures
study
nested
structure
provide
evidences
structural
reinforcement,
mechanism
associates
strengths
for
nodes
interact
more
pairwise
level.
Our
work
highlights
informative
power
providing
principled
way
fingerprints
network
microscale.
IEEE Transactions on Computational Social Systems,
Journal Year:
2024,
Volume and Issue:
11(3), P. 4267 - 4278
Published: Feb. 2, 2024
Simplicial
complexes
successfully
resolve
the
limitation
of
social
networks
to
describe
spread
infectious
diseases
in
group
interactions.
However,
effects
quarantines
context
interactions
remain
largely
unaddressed.
In
this
article,
we
therefore
propose
a
susceptible-infectious-quarantine-
recovered-susceptible
(SIQRS)
model
with
and
study
its
evolution
on
simplicial
complexes.
model,
fraction
infected
individuals
is
subject
quarantine,
but
leaving
quarantine
may
still
be
contagious.
Using
mean-field
(MF)
methods,
derive
propagation
threshold
steady
state
infection
densities
as
well
conditions
for
their
stability.
Numerical
simulations
moreover
show
that
longer
times
higher
ratios
tend
disrupt
discontinuous
phase
transition
bistable
phenomena
are
commonly
due
Additionally,
when
epidemic
outbreaks
recurrent,
although
measures
can
reduce
peak
first
wave
delay
onset
future
waves,
they
also
lead
an
increase
subsequent
densities.
This
highlights
need
prepare
sufficient
resources
deal
periodic
infections
after
initial
over.
Communications Physics,
Journal Year:
2022,
Volume and Issue:
5(1)
Published: March 18, 2022
Abstract
How
can
minorities
of
individuals
overturn
social
conventions?
The
theory
critical
mass
states
that
when
a
committed
minority
reaches
size,
cascade
behavioural
changes
occur,
overturning
apparently
stable
norms.
Evidence
comes
from
theoretical
and
empirical
studies
in
which
very
different
sizes,
including
extremely
small
ones,
manage
to
bring
system
its
tipping
point.
Here,
we
explore
this
diversity
scenarios
by
introducing
group
interactions
as
crucial
element
realism
into
model
for
convention.
We
find
the
necessary
trigger
behaviour
change
be
if
have
limited
propensity
their
views.
Moreover,
ability
existing
norms
depends
complex
way
on
size.
Our
findings
reconcile
sizes
found
previous
investigations
unveil
role
groups
such
processes.
This
further
highlights
importance
emerging
field
higher-order
networks,
beyond
pairwise
interactions.
Science Advances,
Journal Year:
2023,
Volume and Issue:
9(28)
Published: July 12, 2023
Hypergraphs,
describing
networks
where
interactions
take
place
among
any
number
of
units,
are
a
natural
tool
to
model
many
real-world
social
and
biological
systems.
Here,
we
propose
principled
framework
the
organization
higher-order
data.
Our
approach
recovers
community
structure
with
accuracy
exceeding
that
currently
available
state-of-the-art
algorithms,
as
tested
in
synthetic
benchmarks
both
hard
overlapping
ground-truth
partitions.
is
flexible
allows
capturing
assortative
disassortative
structures.
Moreover,
our
method
scales
orders
magnitude
faster
than
competing
making
it
suitable
for
analysis
very
large
hypergraphs,
containing
millions
nodes
thousands
nodes.
work
constitutes
practical
general
hypergraph
analysis,
broadening
understanding