A Survey on Multi-UAV Path Planning: Classification, Algorithms, Open Research Problems, and Future Directions
Drones,
Journal Year:
2025,
Volume and Issue:
9(4), P. 263 - 263
Published: March 31, 2025
Multi-UAV
path
planning
algorithms
are
crucial
for
the
successful
design
and
operation
of
unmanned
aerial
vehicle
(UAV)
networks.
While
many
network
researchers
have
proposed
UAV
to
improve
system
performance,
an
in-depth
review
multi-UAV
has
not
been
fully
explored
yet.
The
purpose
this
study
is
survey,
classify,
compare
existing
in
literature
over
last
eight
years
various
scenarios.
After
detailing
classification,
we
based
on
time
consumption,
computational
cost,
complexity,
convergence
speed,
adaptability.
We
also
examine
approaches,
including
metaheuristic,
classical,
heuristic,
machine
learning,
hybrid
methods.
Finally,
identify
several
open
research
problems
further
investigation.
More
required
smart
that
can
re-plan
pathways
fly
real
complex
Therefore,
aims
provide
insight
into
engineers
contribute
next-generation
systems.
Language: Английский
A Hybrid Optimization Framework for Dynamic Drone Networks: Integrating Genetic Algorithms with Reinforcement Learning
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(9), P. 5176 - 5176
Published: May 6, 2025
The
growing
use
of
unmanned
aerial
vehicles
(UAVs)
in
diverse
fields
such
as
disaster
recovery,
rural
regions,
and
smart
cities
necessitates
effective
dynamic
drone
network
establishment
techniques.
Conventional
optimization
techniques
like
genetic
algorithms
(GAs)
particle
swarm
(PSO)
are
weak
when
it
comes
to
real-time
adjustment
the
environment
multi-objective
constraints.
This
paper
proposes
a
hybrid
framework
combining
reinforcement
learning
(RL)
improve
deployment
networks.
We
integrate
Q-learning
into
GA
mutation
process
allow
drones
adaptively
adjust
locations
real
time
under
coverage,
connectivity,
energy
In
scenario
large-scale
simulations
for
wildfire
tracking,
response,
urban
monitoring
tasks,
approach
performs
better
than
PSO.
greatest
enhancements
6.7%
greater
7.5%
less
average
link
distance,
faster
convergence
optimal
deployment.
proposed
allows
establish
strong
stable
networks
that
nature
adapt
mission
demands
with
efficient
coordination.
research
has
important
applications
autonomous
UAV
systems
mission-critical
where
adaptability
robustness
essential.
Language: Английский
Adaptive Path Planning for Multi-UAV Systems in Dynamic 3D Environments: A Multi-Objective Framework
Designs,
Journal Year:
2024,
Volume and Issue:
8(6), P. 136 - 136
Published: Dec. 20, 2024
This
study
evaluates
and
compares
the
computational
performance
practical
applicability
of
advanced
path
planning
algorithms
for
Unmanned
Aerial
Vehicles
(UAVs)
in
dynamic
obstacle-rich
environments.
The
Adaptive
Multi-Objective
Path
Planning
(AMOPP)
framework
is
highlighted
its
ability
to
balance
multiple
objectives,
including
length,
smoothness,
collision
avoidance,
real-time
responsiveness.
Through
experimental
analysis,
AMOPP
demonstrates
superior
performance,
with
a
15%
reduction
length
compared
A*,
achieving
an
average
450
m.
Its
angular
deviation
8.0°
ensures
smoother
trajectories
than
traditional
methods
like
Genetic
Algorithm
Particle
Swarm
Optimization
(PSO).
Moreover,
achieves
0%
rate
across
all
simulations,
surpassing
heuristic-based
Cuckoo
Search
Bee
Colony
Optimization,
which
exhibit
higher
rates.
Real-time
responsiveness
another
key
strength
AMOPP,
re-planning
time
0.75
s,
significantly
outperforming
A*
RRT*.
complexities
each
algorithm
are
analyzed,
exhibiting
complexity
O(k·n)
space
O(n),
ensuring
scalability
efficiency
large-scale
operations.
also
presents
comprehensive
qualitative
quantitative
comparison
14
using
3D
visualizations,
highlighting
their
strengths,
limitations,
suitable
application
scenarios.
By
integrating
weighted
optimization
penalty-based
strategies
spline
interpolation,
provides
robust
solution
UAV
planning,
particularly
scenarios
requiring
smooth
navigation
adaptive
re-planning.
work
establishes
as
promising
real-time,
efficient,
safe
operations
Language: Английский