Coordinating Robot Systems

Home
Full List of Titles
1: Proceedings of CDC2000
Discrete Event Systems
Control in Communication Systems
Optimal Control and Applications I
Optimisation Approaches and Methods
Model Predictive Control
Advances in Linear Estimation
Stochastic and Uncertain Systems
Nonlinear Control and Applications
Nonlinear Estimation and Filtering
Formation Control and its Applications
New Approaches to Fuzzy Control
Manufacturing Systems
Automotive Applications
Stability Issues in Hybrid Control
Recent Advances in Stochastic Networks
Optimal Control and Applications II
Robust Controller Design - mu, L1 and H2
Constrained and Receding Horizon Control
Identification and Control around the World
Markov Decision Processes
Nonlinear Optimisation
Observers for Nonlinear Systems
Motion Planning
Neural / Fuzzy Stability and Control
Motor Control
Control of Quantum Phenomena I
Hybrid Systems Methods
Control in Communication Networks
Robustness and Optimisation
Bumpless Transfer, Antiwindup and Saturation
Adaptive Control: Linear Systems
Estimation and Closed Loop Identification
Control of Markov Processes
Nonlinear Filtering and Control
Modelling, Identification and Validation of Nonlinear Systems
Differential Geometric Control Theory for Mechanical Systems
Nonlinear Output Feedback Control
Pneumatics and Compression Systems
Control of Quantum Phenomena II
Stability of Hybrid Systems
Performance Analysis in Communication Networks
Adaptive Control of Nonlinear Systems
LMI Methods in Design
Robust Control of Time Delay Systems
Subspace Identification Methods
Nonlinear Stochastic Filtering and Estimation
Bifurcations, Chaos and Control I
New Progress in Synthesis of Nonlinear Systems I
Implementation Issues of Sliding Mode Control Theory
Control of Mixing in Shear Flows
Novel Neural Network Control Techniques for Industrial Motion Control Systems
Physiological Control Systems
Optimal Control of Hybrid Systems
Stochastic Models for Communication Networks
Control and Stabilisation of Nonlinear Systems
New Directions in Robust Control
Linear Systems Theory
Advanced Topics in Systems Theory
Estimation in Action
Bifurcations, Chaos and Control II
New Progress in Synthesis of Nonlinear Systems II
Numerical Design and Analysis Techniques for Nonlinear Systems
Analysis and Control of Underactuated Systems
Sliding Mode Control I
Challenges in the Application of Control to Computer Systems
Estimation and Diagnosis of Discrete Event Systems
Communications and Games
Optimal Control
Stochastic Systems
Model Reduction Methodologies
Identification and Subspace Methods
Applications of Nonlinear Adaptive Control
Advances in Nonlinear Output Feedback Design
The Behavioural Approach to Systems and Control
Vision Based Estimation and Control: Recent Advances and Open Problems
Agile Control of Military Operations
Sliding Mode Control II
Model-based Fault Diagnosis of Industrial Processes
Discrete Event Systems / Petri Nets
System Identification and Confidence Estimation
New Approaches to H-Infinity Control I
Probabilistic Approaches to Robust Control
Time Delay System Stabilisation
Identification Methods
Controlled Stochastic Processes
Output Feedback of Nonlinear Systems
Topics in Nonlinear Stabilisation
Mobile Robots: Tracking Control
Robust Control of Nonlinear Systems
Power Systems Stabilisation and Control
Disk Drive Control
Hybrid Control Applications
Discrete Time Systems
New Approaches to H-Infinity Control II
Linear Systems with Saturating Actuators
New Theories in Distributed Parameter Systems
Applications of Estimation and Identification
Stochastic Control and Tuning Methodologies
Control of Nonlinear Systems
Iterative Learning and Control
Coordinating Robot Systems
Nonlinear Time Varying Systems
Novel Applications of Neural Networks
Aerospace Applications
Switched Systems
Implicit and Descriptor Systems
LQG
Periodic Systems and Disturbances
New Horizons for Distributed Parameter Systems
State Estimation
Learning and Neuro-Control
Nonlinear Control and Stabilisation I
Tracking
Vision Servoing
Controllability of Nonlinear Systems
Control of Flexible Systems
Electro-Mechanical Systems
Robust Control Methods and Applications
Fault Detection and Diagnosis
Optimisation and Applications
Robust Stability Analysis
Numerical Methods in Control
Filtering in Continuous Time Stochastic Systems
Interplay between Control and Signal Processing
Fault Detection and Analysis
Nonlinear Dynamical Systems
Nonlinear Time Delay Systems
Computational Issues in Nonlinear Control
Disturbance Rejection
Process Control Industry Applications
Linear Parameter Varying Systems
Linear Control Systems
Dynamic and Nonlinear Programming
Model Reduction Applications
New Techniques for Control and Systems: Numerical Linear Algebra
Estimation and Identification using Hidden Markov Models
Applications of Stochastic Control
Topics in Linear Design
Nonlinear Control and Stabilisation II
Ambulatory Robot Systems
Chaotic and Oscillatory Systems
Biomedical System Control
Integrated Control and CPU Scheduling
Linear Design Techniques
Adaptive Disturbance / Noise Compensation
Nonlinear Model Predictive Control
Sensitivity Design, Analysis and Limitations
Analysis of Linear Systems
Linear Matrix Inequalities in Design
Lyapunov's 2nd Method
Robotics: Tracking Control
Lagrangian and Hamiltonian Theory
Variable Structure Control
Machine Vision
Signal Processing Methods in Control
Applied Nonlinear Control

Author Index
A B C D E F G H I
J K L M N O P Q R
S T U V W X Y Z

Stability Analysis For A Teleoperation System With Time Delay And Force Feedback

Authors:

Cecilia Elisabet Garcia, Beatriz del Carmen Morales, Ricardo Oscar Carelli, Jose Francisco Postigo,

Volume: 1, Page 3453 Paper number 1931

Abstract:

The stability analysis of a two-degree-of freedom teleoperation system, considering the remote station as a non-linear system, is presented. The non-linearity arises in the remote robot's model. Force and position data are backfed from the local to the remote station. The time delay between both stations is fixed and known. A model of the human operator is incorporated into the dynamics of the local station, while a model of the environment is incorporated into the dynamics of the remote station. The analysis, based on operators theory, ensures that system signals remain within a small bounded region. The validity of the theoretical results are verified by simulation.

CD001931.PDF (From Author)

TOP


An Optimal Scheduling Technique for Dual-Arm Robots in Cluster Tools with Residency Constraints

Authors:

Shadi Rostami, Babak Hamidzadeh, Dan Camporese,

Volume: 1, Page 3459 Paper number 2020

Abstract:

This paper discusses a scheduling technique, for cluster tools, that addresses post-processing residency constraints and throughput requirements. The residency constraints impose a limit on the post-processing time that a material unit spends in a processing module. The technique searches in the time and resource domains for a feasible schedule with a maximum throughput. Several heuristics are designed and added to reduce the complexity of the scheduling algorithm. The resulting schedules are deadlock free, since resources are scheduled according to the times that they are available. Analytical and experimental analyses demonstrate the correctness and efficiency of our proposed technique.

CD002020.PDF (From Author)

TOP


Impedance Control for Multi-Arm Manipulation

Authors:

Fabrizio Caccavale, Luigi Villani,

Volume: 1, Page 3465 Paper number 1691

Abstract:

In this paper a geometrically consistent impedance concept is applied to control a multi-arm system. The case of a common rigid object rigidly grasped by the manipulators in the system is considered. A six-DOF impedance behaviour is enforced at the object level so as to keep limited the force/moment due to the interaction with an external environment. Moreover, in order to avoid large internal forces, a six-DOF impedance behaviour is imposed at each end-effector. The adoption of the unit quaternion to describe object frame orientation ensures consistency with the task geometry. The overall control scheme is of inverse dynamics type with an inner motion loop which provides robustness to unmodeled dynamics and disturbances.

CD001691.PDF (From Author)

TOP


Hand Over Control Of Unstable Object Using Manipulators - An Approach Of Continuously Switching Of Controllers

Authors:

Napoleon Nazir, Tasuku Hoshino, Katsuhisa Furuta,

Volume: 1, Page 3471 Paper number 1896

Abstract:

This paper presents a new hand over method of unstable object using robot manipulators by an approach of continuously switching of controllers. Each of robot manipulator can be considered as a controller to stabilize the object. It is needed to switch from one controller to another one so that the input of the system does not exceed the value which is required to stabilize the object. However, it is known that if the controller switches at unsuitable time, the system may become unstable. The idea of a new method that is presented here is to make a switching of the controllers based on Double Bracket Flow. It will be shown that even if switching time is done at any time, the system remains stable. Experimental results using two Puma-like 6 D.O.F. robot to hand over an inverted pendulum from one robot to another are included.

CD001896.PDF (From Author)

TOP


Synergetic Localization for Groups of Mobile Robots

Authors:

Stergios I. Roumeliotis, George A. Bekey,

Volume: 1, Page 3477 Paper number 96

Abstract:

In this paper we present a new approach to the problem of simultaneously localizing a group of mobile robots capable of sensing each other. Each of the robots collects sensor data regarding its own motion and shares this information with the rest of the team during the update cycles. A single estimator, in the form of a Kalman filter, processes the available positioning information from all the members of the team and produces a pose estimate for each of them. The equations for this centralized estimator can be written in a decentralized form therefore allowing this single Kalman filter to be decomposed into a number of smaller communicating filters each of them processing local (regarding the particular host robot) data for most of the time. The resulting decentralized estimation scheme constitutes a unique mean for fusing measurements collected from a variety of sensors with minimal communication and processing requirements. The distributed localization algorithm is applied to a group of 3 robots and the improvement in localization accuracy is presented. Finally, a comparison to the equivalent distributed information filter is provided.

CD000096.PDF (From Author)

TOP


A Strategy For Controlling Autonomous Robot Platoons

Authors:

Daniel J. Stilwell, Bradley E. Bishop,

Volume: 1, Page 3483 Paper number 2119

Abstract:

Development of decentralized control systems for platoons of robotic vehicles often requires direct communication between vehicles. Using basic tools from the field of decentralized control, we develop a framework from which existence of vehicle controllers can be assessed for a given communication structure. This approach to control design allows us to investigate minimum inter-vehicle communication solutions. Simulation results are presented for a platoon of autonomous underwater vehicles.

CD002119.PDF (From Author)

TOP