Biologically Inspired Series-Parallel Hybrid Robots: Design, Analysis and Control provides an extensive review of the state-of-the-art in series-parallel hybrid robots, covering all aspects of their mechatronic system design, modelling, and control. This book highlights the modular and distributed aspects of their mechanical, electronics, and software design, introducing various modern methods for modelling the kinematics and dynamics of complex robots. These methods are also introduced in the form of algorithms or pseudo-code which can be easily programmed with modern programming languages. Presenting case studies on various popular series-parallel hybrid robots which will inspire new robot developers, this book will be especially useful for academic and industrial researchers in this exciting field, as well as graduate-level students to bring them closer to the latest technology in mechanical design and control aspects of the area.
Table of Contents
PrefacePart 1: Introduction to Biologically Inspired Hybrid Robots
1. Motivation
2. Modular and Decentralized Design Principles
Part 2: Geometric Analysis
3. Modern methods in Geometric Analysis (4 bar mechanism, slider crank)
4. 2-DOF Orientational Parallel Mechanisms
5. 3 DOF Orientational Parallel Mechanism
Part 3: Kinematics, Dynamics and Control
6. Kinematics and Dynamics of Tree-Type systems
7. Modular Algorithms for Kinematics and Dynamics of series-parallel hybrid robots
8. Forward Dynamics with Constraint Embedding for Dynamic Simulation
9. Whole Body Control
10. Whole Body Trajectory Optimization
Part 4: Mechatronic System Design of Some Hybrid Robots
11. Hominid robot Charlie
12. Multi-legged robot Mantis
13. Sherpa, a Family of Wheeled-Leg Rovers
14. Recupera-Reha Exoskeleton
15. RH5 Pedes Humanoid
16. Autonomous Rough Terrain Excavator Robot (ARTER)
Part 5: Software and Outlook
17. Phobos: Creation and Maintenance of Complex Robot Models
18. HyRoDyn: Hybrid Robot Dynamics
19. Design of a flexible bio-inspired robot for inspection of pipelines
20. Design optimisation of parallel submechanism modules