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C. Grand, F. Amar, F. Plumet, P. Bidaud (2004)
Stability and Traction Optimization of a Reconfigurable Wheel-Legged RobotThe International Journal of Robotics Research, 23
M. Eich, F. Grimminger, F. Kirchner (2009)
Adaptive compliance control of a multi-legged stair-climbing robot based on proprioceptive dataInd. Robot, 36
J.A. Cobano, R. Ponticelli, P. Gonzalez de Santos
Mobile robotic system for detection and location of antipersonnel land mines: field tests
A. Gonzalez-Rodriguez, A. González-Rodríguez, Antonio Nieto, R. Morales (2009)
Design and simulation of an easy operating leg for walking robots2009 IEEE International Conference on Mechatronics
R. Ham, B. Vanderborght, M. Damme, B. Verrelst, D. Lefeber (2006)
MACCEPA: the mechanically adjustable compliance and controllable equilibrium position actuator for 'controlled passive walking'Proceedings 2006 IEEE International Conference on Robotics and Automation, 2006. ICRA 2006.
M. Raibert, Kevin Blankespoor, G. Nelson, R. Playter (2008)
BigDog, the Rough-Terrain Quadruped RobotIFAC Proceedings Volumes, 41
B. Wilcox, T. Litwin, J. Biesiadecki, J. Matthews, M. Heverly, J. Morrison, J. Townsend, N. Ahmad, A. Sirota, B. Cooper (2007)
Athlete: A cargo handling and manipulation robot for the moonJournal of Field Robotics, 24
J. Cobano, R. Ponticelli, P. Santos (2017)
Industrial Robot : An International Journal Mobile robotic system for detection and location of antipersonnel land mines : field tests
S. Hirose, H. Takeuchi (1996)
Study on Roller-Walk (basic characteristics and its control)Proceedings of IEEE International Conference on Robotics and Automation, 4
A. González, R. Morales, V. Feliu, P. Pintado
Improving the mechanical design of a new staircase climbing wheelchair
A. González-Rodríguez, Rafael Herrera, V. Batlle, P. Pintado (2007)
Improving the mechanical design of new staircase wheelchairInd. Robot, 34
A. Halme, I. Leppänen, J. Suomela, S. Ylönen, I. Kettunen (2003)
WorkPartner: Interactive Human-Like Service Robot for Outdoor ApplicationsThe International Journal of Robotics Research, 22
Daan Hobbelen, T. Boer, M. Wisse (2008)
System overview of bipedal robots Flame and TUlip: Tailor-made for Limit Cycle Walking2008 IEEE/RSJ International Conference on Intelligent Robots and Systems
Jianjun Yuan, S. Hirose (2005)
Zero Carrier: A Novel Eight Leg-Wheels Hybrid Stair Climbing Mobile VehicleJ. Robotics Mechatronics, 17
S. Guccione, G. Muscato (2003)
The wheeleg robotIEEE Robotics Autom. Mag., 10
Paul Sandin (2003)
Robot Mechanisms and Mechanical Devices Illustrated
D. Kar (2003)
Design of Statically Stable Walking Robot: A ReviewJ. Field Robotics, 20
M. Görner, T. Wimböck, G. Hirzinger (2009)
The DLR Crawler: evaluation of gaits and control of an actively compliant six-legged walking robotInd. Robot, 36
G. Figliolini, P. Rea
Chapter 1: mechanics and simulation of six‐legged walking robots
Luther Palmer, D. Orin (2006)
3D control of a high-speed quadruped trotInd. Robot, 33
A. Baños, M. Jimenez, P. Santos (1992)
Dynamic simulation of a four-legged gait[Proceedings] 1992 IEEE International Conference on Systems, Man, and Cybernetics
K.K. Hartikainen, A.J. Halme, H. Lehtinen, K.O. Koskinen
A six legged walking machine for research purposes in outdoor environments
P. Santos, J. Galvez, J. Estremera, Elena Garcia (2003)
SIL04: a true walking robot for the comparative study of walking machine techniquesIEEE Robotics Autom. Mag., 10
B. Gaßmann, Kay-Ulrich Scholl, K. Berns (2001)
Locomotion of LAURON III in rough terrain2001 IEEE/ASME International Conference on Advanced Intelligent Mechatronics. Proceedings (Cat. No.01TH8556), 2
S. Hirose, K. Yoneda, K. Arai, T. Ibe (1991)
Design of prismatic quadruped walking vehicle TITAN VIFifth International Conference on Advanced Robotics 'Robots in Unstructured Environments
P. Wellman, V. Krovi, Vijay Kumar, W. Harwin (1995)
Design of a wheelchair with legs for people with motor disabilitiesIEEE Transactions on Rehabilitation Engineering, 3
T. McGeer (1990)
Passive Dynamic WalkingThe International Journal of Robotics Research, 9
D. Germann, M. Hiller, D. Schramm (2005)
Design and Control of the Quadruped Walking Robot ALDURO
D. Golubovic, Huosheng Hu (2005)
Evolving locomotion gaits for quadruped walking robotsInd. Robot, 32
P. Aarnio, K. Koskinen, S. Salmi
Simulation of the HYBTOR robot
K. Hartikainen, A. Halme, H. Lehtinen, K. Koskinen (1992)
MECANT I: a six legged walking machine for research purposes in outdoor environmentProceedings 1992 IEEE International Conference on Robotics and Automation
A. Erdman, G. Sandor (1984)
Mechanism Design : Analysis and Synthesis
P. Santos, J. Estremera, Elena Garcia, M. Armada (2005)
Including Joint Torques and Power Consumption in the Stability Margin of Walking RobotsAutonomous Robots, 18
T. Guardabrazo, P. Santos (2004)
Building an energetic model to evaluate and optimize power consumption in walking robotsInd. Robot, 31
G. Figliolini, P. Rea, M. Conte (2009)
MECHANICAL DESIGN OF A SIX LEGGED WALKING ROBOT WITH SARRUS-2 (3-RPS) LEG MECHANISM
Shin-Min Song, K. Waldron (1988)
Machines That Walk: The Adaptive Suspension Vehicle
E. Ottaviano, M. Ceccarelli, C. Tavolieri (2005)
Kinematic and Dynamic Analyses of a Pantograph-Leg for a Biped Walking Machine
Purpose – The paper aims to present a new mechanical scheme for a leg to be included in legged vehicles that simplifies the control actuations along the stride. Design/methodology/approach – The scheme includes three four‐bar links grouped in two mechanisms. The first one decouples the vertical and horizontal foot movements. The second one produces a constant horizontal foot velocity when the corresponding motor is given a constant speed. A hybrid robot with wheels at the end of the hind legs has been simulated and constructed to validate the leg performance. Findings – The gait control requires only five commands for the electronic cards to control the leg. Decoupling vertical and horizontal movements allows a more adequate selection of actuators, a reduction of energy consumption, and higher load capacity and robot velocity. Additional mechanical benefits, such as improved robustness and lower inertia, are obtained. The hind legs can also be articulated, allowing the robot to overcome an obstacle and to climb up and down stairs. Research limitations/implications – A hybrid robot offers greater stability with respect to a legged robot. This way the lateral movement is not a concern, and therefore it has not been tested yet during the walking cycle. Originality/value – This new scheme obtains a quasi‐Cartesian behaviour for the foot movement that drastically simplifies the control of the walking cycle. Although the decoupling between movements has already been obtained in previous configurations, these follow a pantograph structure and suffer from blocking problems when they are subject to lateral forces. These schemes were suitable for crab‐like gaits. The proposed leg moves according to a mammal‐like gait.
Industrial Robot: An International Journal – Emerald Publishing
Published: Aug 23, 2011
Keywords: Robots; Kinematics; Mobile robots; Legged robots; Kinematic analysis; Synthesis
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