1 Physical Modeling and Port-Hamiltonian Systems |
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1.2 The Behavioral Paradigm for Modeling Dynamical Systems |
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1.2.1 Universe, Behavior and Behavioral Equations |
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1.2.2 Manifest and Latent Variables |
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1.4 Implicit Port-Hamiltonian Systems |
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1.4.1 A Coordinate Based Representation |
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2 Control of Port-Hamiltonian Systems |
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2.2 Basic Concepts of Passivity Theory |
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2.2.1 Definitions and Properties |
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2.2.2 Output Feedback Stabilization of Passive Systems |
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2.2.3 Port-Hamiltonian Systems and Passivity |
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2.3 Energy Shaping of Port-Hamiltonian Systems |
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2.3.1 Stabilization by Energy Balancing |
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2.3.2 The Control as Interconnection Paradigm |
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2.3.3 Energy Shaping as Control by Interconnection |
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2.4 Interconnection and Damping Assignment Passivity Based Control |
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2.5 A Variable Structure Approach to Energy-Based Control |
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3 A Port-Hamiltonian Approach to the Control of Interaction |
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3.2 Intrinsically Passive Control of Interaction |
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3.3 Intrinsically Passive Control of Robotic Systems |
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3.3.1 IPC for Anthropomorphic Robotic Arms |
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3.4 Interaction with Virtual Environments: Haptic Interfaces |
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3.4.1 Sampled Port-Hamiltonian Systems |
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3.4.2 Energy Consistent Sampled Passivity |
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3.4.3 Passive Coupled Behavior |
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3.4.4 Dealing with Quantization Errors |
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3.5 Delayed Virtual Environments |
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3.5.1 The Effect of Delayed Output |
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3.5.2 Passive Discretization of Port-Hamiltonian Systems in Scattering Representation |
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3.6 Force Scaling in Port-Hamiltonian Based Haptic Interfaces |
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3.6.1 Power Scaling in Port-Hamiltonian Based Haptic Interfaces |
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4 Port-Hamiltonian Based Bilateral Telemanipulation |
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4.2 Port-Hamiltonian Based Bilateral Telemanipulation |
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4.2.1 An Energetic Analysis of a Bilateral Telemanipulation System |
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4.2.2 Passive Control of Interaction |
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4.2.3 Passive Communication Channel |
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4.2.4 The Intrinsically Passive Telemanipulation Scheme |
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4.3 Complex Telemanipulation Systems: Telegrasping |
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4.4 A Digital Scheme for Intrinsically Passive Telemanipulation |
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4.5 Improving Performances in Intrinsically Passive Digital Telemanipulation |
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5 Transparency in Port-Hamiltonian Based Telemanipulation |
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5.2 A Model for the Contact Impedance |
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5.3 A Behavioral Framework for Evaluating Transparency |
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5.3.1 Analysis of the Port Behavior |
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5.3.2 Transparency in Telemanipulation |
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5.3.3 Transparent Telemanipulation as a Behavioral Control Problem |
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5.4 Transparency in Port-Hamiltonian Based Telemanipulation |
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5.4.2 Transparency Analysis of a Scattering Based Packet Switching Communication Channel |
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5.5 A Passivity Preserving Tuning of Port-Hamiltonian Systems |
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5.5.1 Parameters Associated to Energy Storage |
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5.5.2 Parameters Associated to Energy Dissipation and Interconnection |
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5.6 A Scheme for Transparent Port-Hamiltonian Based Telemanipulation |
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A Mathematical Background |
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A.1 Manifolds and Vector Bundles |
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A.3 Lie Groups and Rigid Motions |
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A.3.1 An Example: The Special Euclidean Group SE(3) |
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References |
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Index |
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