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Articles

Velocity tracking controller for simulation analysis of underwater vehicle model

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Pages 229-239 | Received 23 Oct 2017, Accepted 24 Sep 2018, Published online: 16 Oct 2018

Figures & data

Table 1. Parameters of the underwater vehicle.

Table 2. Hydrodynamic derivatives and damping terms.

Figure 1. Simulation results using GVC for underwater vehicle: (a) linear velocity errors; (b) angular velocity errors.

Figure 1. Simulation results using GVC for underwater vehicle: (a) linear velocity errors; (b) angular velocity errors.

Figure 2. Simulation results using the classical (CL) controller for underwater vehicle: (a) linear velocity errors; (b) angular velocity errors.

Figure 2. Simulation results using the classical (CL) controller for underwater vehicle: (a) linear velocity errors; (b) angular velocity errors.

Figure 3. Simulation results using GVC for underwater vehicle: (a) lumped dynamics estimation errors w related to linear velocities; (b) lumped dynamics estimation errors w related to angular velocities.

Figure 3. Simulation results using GVC for underwater vehicle: (a) lumped dynamics estimation errors w related to linear velocities; (b) lumped dynamics estimation errors w related to angular velocities.

Figure 4. Simulation results using GVC for underwater vehicle: (a) the quantity Δξ time history related to linear velocities; (b) the quantity Δξ related to angular velocities.

Figure 4. Simulation results using GVC for underwater vehicle: (a) the quantity Δξ time history related to linear velocities; (b) the quantity Δξ related to angular velocities.

Figure 5. Simulation results using GVC for underwater vehicle: (a) the quantity Δπ time history related to linear velocities; (b) the quantity Δπ related to angular velocities.

Figure 5. Simulation results using GVC for underwater vehicle: (a) the quantity Δπ time history related to linear velocities; (b) the quantity Δπ related to angular velocities.

Figure 6. Case 2: simulation results using (Equation29) controller for underwater vehicle: (a) linear velocity errors; (b) angular velocity errors; (c) lumped dynamics estimation errors w related to linear velocities; (d) lumped dynamics estimation errors w related to angular velocities; (e) control forces τ; (f) control torques τ.

Figure 6. Case 2: simulation results using (Equation29(29) τ=Mν˙r+C(ν)νr+D(ν)νr+g(η)+kDs+kIz+f~,(29) ) controller for underwater vehicle: (a) linear velocity errors; (b) angular velocity errors; (c) lumped dynamics estimation errors w related to linear velocities; (d) lumped dynamics estimation errors w related to angular velocities; (e) control forces τ; (f) control torques τ.

Figure 7. Case 2: simulation results using GVC for underwater vehicle: (a) control forces τ; (b) control torques τ.

Figure 7. Case 2: simulation results using GVC for underwater vehicle: (a) control forces τ; (b) control torques τ.

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