Abstract:
This paper presents a quantitative comparison framework for bilateral teleoperation systems (BTSs) that have different dynamic characteristics and sensory configurations...Show MoreMetadata
Abstract:
This paper presents a quantitative comparison framework for bilateral teleoperation systems (BTSs) that have different dynamic characteristics and sensory configurations for a given task-dependent performance objective (TDPO). \mu-synthesis is used to develop the framework since it can efficiently treat systems containing uncertainties and disturbances. The framework consists of: 1) a feasibility test and 2) a comparison methodology using prioritized TDPOs. As the formulation used is based on \mu-synthesis, the system, operator, and environment models are represented in the form of linear nominal models with frequency-dependent multiplicative uncertainties. This framework is applied to a BTS including an uncertain human operator and environment in a practical case study. The validity of the proposed quantitative framework is confirmed through experiments. The proposed framework can be used as a tool to design BTSs, especially when there are constraints in designing drive mechanisms and choosing sensory configurations.
Published in: IEEE Transactions on Robotics ( Volume: 23, Issue: 4, August 2007)
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Quantitative Comparison ,
- Linear Model ,
- Model System ,
- Dynamic Characteristics ,
- Human Environment ,
- Objective Performance ,
- Uncertain Environment ,
- Human Operator ,
- Feasibility Testing ,
- Quantitative Framework ,
- Nominal Model ,
- Multiple Uncertainties ,
- Time Delay ,
- Transfer Function ,
- Nonlinear Systems ,
- Model Uncertainty ,
- Interaction Forces ,
- Sensor Locations ,
- Force Sensor ,
- Gear Ratio ,
- Human Side ,
- Stability Margin ,
- Uncertainty Set ,
- Teleoperator ,
- Uncertainty Term ,
- Synthesis Algorithm ,
- Position Tracking ,
- Environmental Uncertainty
- Author Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Quantitative Comparison ,
- Linear Model ,
- Model System ,
- Dynamic Characteristics ,
- Human Environment ,
- Objective Performance ,
- Uncertain Environment ,
- Human Operator ,
- Feasibility Testing ,
- Quantitative Framework ,
- Nominal Model ,
- Multiple Uncertainties ,
- Time Delay ,
- Transfer Function ,
- Nonlinear Systems ,
- Model Uncertainty ,
- Interaction Forces ,
- Sensor Locations ,
- Force Sensor ,
- Gear Ratio ,
- Human Side ,
- Stability Margin ,
- Uncertainty Set ,
- Teleoperator ,
- Uncertainty Term ,
- Synthesis Algorithm ,
- Position Tracking ,
- Environmental Uncertainty
- Author Keywords