2021
DOI: 10.1016/j.apor.2021.102588
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Local path optimization method for unmanned ship based on particle swarm acceleration calculation and dynamic optimal control

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Cited by 30 publications
(9 citation statements)
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“…The depth of water should larger than the draft and squat of ships hybrid methods include nonlinear programming (gradient descent + the genetic algorithm (Ni et al, 2017), tangent graph (represent obstacles) + the swarm optimisation algorithm (Shen et al, 2019), A* (global path planning) + artificial potential field (complete obstacle avoidance) (Yu et al, 2019a) and discrete artificial potential field (a collision-free path) + optimisation algorithm (achieve the optimal path). The super-hybrid methods include genetic algorithm + particle swarm optimisation (Zhao et al, 2021), dynamic optimal control + particle swarm acceleration calculation (Wang et al, 2021), dynamic programming + behaviour learning (Yu et al, 2021a) and artificial neural network + particle swarm optimisation (Yu et al, 2021b). Usually, the mixed algorithms show wonderful ability in avoiding a collision with obstacles, reducing distance cost, accomplishing path optimisation in unknown complex scenarios and reducing the sailing time.…”
Section: General Model For Ship Path Optimisationmentioning
confidence: 99%
“…The depth of water should larger than the draft and squat of ships hybrid methods include nonlinear programming (gradient descent + the genetic algorithm (Ni et al, 2017), tangent graph (represent obstacles) + the swarm optimisation algorithm (Shen et al, 2019), A* (global path planning) + artificial potential field (complete obstacle avoidance) (Yu et al, 2019a) and discrete artificial potential field (a collision-free path) + optimisation algorithm (achieve the optimal path). The super-hybrid methods include genetic algorithm + particle swarm optimisation (Zhao et al, 2021), dynamic optimal control + particle swarm acceleration calculation (Wang et al, 2021), dynamic programming + behaviour learning (Yu et al, 2021a) and artificial neural network + particle swarm optimisation (Yu et al, 2021b). Usually, the mixed algorithms show wonderful ability in avoiding a collision with obstacles, reducing distance cost, accomplishing path optimisation in unknown complex scenarios and reducing the sailing time.…”
Section: General Model For Ship Path Optimisationmentioning
confidence: 99%
“…At present, there are many navigation planning algorithms, which can be divided into global navigation planning and local navigation planning from the scope of action. The global navigation path planning methods mainly include visual graph method 90 , Voronoi diagram method 91 , grid method 92 , A * algorithm 93 , RRT algorithm 94 , particle swarm optimization algorithm 95,96 , ant colony algorithm 97 , genetic algorithm [98][99] , reinforcement learning method 100 , etc. Local navigation planning methods mainly include artificial potential field method 01 ], dynamic window method 102 , speed obstacle method 103 .…”
Section: Route Planningmentioning
confidence: 99%
“…Some scholars focus on studying path optimization algorithms, simplifying or ignoring a ship's characteristics and COLREGS rules. Wang (2021) [28] simplified the MMG model to a first-order differential ship motion model when calculating the local path without considering COLREGS rules. The study focused on using a particle swarm optimization algorithm to obtain the shortest path under various constraints as the optimal local path.…”
Section: Local Path Planningmentioning
confidence: 99%