Show/Hide Menu
Hide/Show Apps
Logout
Türkçe
Türkçe
Search
Search
Login
Login
OpenMETU
OpenMETU
About
About
Open Science Policy
Open Science Policy
Open Access Guideline
Open Access Guideline
Postgraduate Thesis Guideline
Postgraduate Thesis Guideline
Communities & Collections
Communities & Collections
Help
Help
Frequently Asked Questions
Frequently Asked Questions
Guides
Guides
Thesis submission
Thesis submission
MS without thesis term project submission
MS without thesis term project submission
Publication submission with DOI
Publication submission with DOI
Publication submission
Publication submission
Supporting Information
Supporting Information
General Information
General Information
Copyright, Embargo and License
Copyright, Embargo and License
Contact us
Contact us
Feedback motion planning of unmanned underwater vehicles via random sequential composition
Download
index.pdf
Date
2019
Author
Ege, Emr
Metadata
Show full item record
This work is licensed under a
Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License
.
Item Usage Stats
243
views
129
downloads
Cite This
In this thesis, we propose a new motion planning method to robustly and computationally efficiently solve (probabilistic) coverage, path planning, and navigation problems for unmanned underwater vehicles (UUVs). Our approach is based on synthesizing two existing methodologies: sequential decomposition of dynamic behaviors and rapidly exploring random trees. The main motivation for this integrated solution is a robust feed-back based and computationally feasible motion planning and navigation algorithm that takes advantage of these two planning approaches. To illustrate the main approach and show the feasibility of the method, we first performed 2D simulations in MATLAB. We then implemented our method using a realistic fully dynamic 3D UUV simulation environment based on a platform built on the Robot Operating System (ROS)/Gazebo interface to test the overall performance and applicability for real applications. We also tested the robustness of the method under extreme environmental uncertainty (water current that is half the maximum speed of the UUV). 2D and realistic 3D simulation results indicate that our method can produce robust and computationally feasible solutions for a broad class of UUVs and Unmanned Surface Vehciles (USVs).
Subject Keywords
Autonomous underwater vehicles
,
Keywords: Unmanned Underwater Vehicles(UUV)
,
Feedback Motion Planning; UUV Simulation
,
Sequential Composition
,
RRT
,
ROV
,
AUV
URI
http://etd.lib.metu.edu.tr/upload/12624592/index.pdf
https://hdl.handle.net/11511/45212
Collections
Graduate School of Natural and Applied Sciences, Thesis
Suggestions
OpenMETU
Core
Feedback motion planning of a novel fully actuated unmanned surface vehicle via sequential composition of random elliptical funnels
Özdemir, Oğuz; Ankaralı, Mustafa Mert; Department of Electrical and Electronics Engineering (2022-12-27)
This thesis proposes and analyzes a motion planning and control schema for unmanned surface vehicles that fuses sampling-based approaches’ probabilistic completeness with closed-loop approaches’ robustness. The Proposed schema is based on the sequential composition of elliptical funnels, and it consists of two stages: tree generation and motion control. For validation of the approach, we carried out experiments using both simulation and physical setup besides the mathematical analysis. In order to have a co...
Feedback motion planning of unmanned surface vehicles via random sequential composition
Ege, Emre; Ankaralı, Mustafa Mert (SAGE Publications, 2019-08-01)
In this paper, we propose a new motion planning method that aims to robustly and computationally efficiently solve path planning and navigation problems for unmanned surface vehicles (USVs). Our approach is based on synthesizing two different existing methodologies: sequential composition of dynamic behaviours and rapidly exploring random trees (RRT). The main motivation of this integrated solution is to develop a robust feedback-based and yet computationally feasible motion planning algorithm for USVs. In ...
Robotic task planning using a backchaining theorem prover for multiplicative exponential first-order linear logic
Kortik, Sitar; Saranlı, Uluç (SPRINGER, VAN GODEWIJCKSTRAAT 30, 3311 GZ DORDRECHT, NETHERLANDS, 2019-11)
In this paper, we propose an exponential multiplicative fragment of linear logic to encode and solve planning problems efficiently in STRIPS domain, that we call the Linear Planning Logic (LPL). Linear logic is a resource aware logic treating resources as single use assumptions, therefore enabling encoding and reasoning of domains with dynamic state. One of the most important examples of dynamic state domains is robotic task planning, since informational or physical states of a robot include non-monotonic c...
Nonlinear guidance and control of leader-follower UAV formations
Kumbasar, Sarper; Tekinalp, Ozan; Department of Aerospace Engineering (2015)
In this thesis work, two nonlinear guidance methods are proposed to control the autonomous formation flight: State Dependent Riccati Equation method and Lyapunov function method. Leader-Follower formation scheme is chosen and a pair of fighter aircrafts are used in simulations. One of them is chosen as the leader and it carries out the commanded maneuvers. Other aircraft is the follower and it follows the leader keeping the prescribed formation structure. Both aircraft models are nonlinear. In the inner loo...
Broadband One Way Propagation via Dielectric Waveguides with Unequal Effective Index
Oner, B. B.; Ustun, K.; KURT, HAMZA; OKYAY, Ali Kemal; Sayan, Gönül (2014-10-16)
We present an efficient approach for broad band one way propagation of light by parallel and unequal dielectric waveguides leading different effective phase shifts. Three dimensional numerical simulations show that 30% operating bandwidth is achieved.
Citation Formats
IEEE
ACM
APA
CHICAGO
MLA
BibTeX
E. Ege, “Feedback motion planning of unmanned underwater vehicles via random sequential composition,” Thesis (Ph.D.) -- Graduate School of Natural and Applied Sciences. Electrical and Electronics Engineering., Middle East Technical University, 2019.