1 Patel N., "The ExoMars Rover Locomotion Subsystem" 47 (47): 227-242, 2010
2 Ishigami G., "Terramechanicsbased Model for Steering Maneuver of Planetary Exploration Rovers on Loose Soil" 24 (24): 233-250, 2007
3 Helmick D. M., "Slip Compensation for a Mars Rover" 2005
4 Zhou, F., "Simulations of Mars Rover Traverses" 31 (31): 141-160, 2014
5 Wertz J. R., "Risk and Reliability" Microcosm Press 753-780, 2011
6 Delgado, I. R., "Preliminary Assessment of Seals for Dust Mitigation of Mechanical Components for Lunar Surface Systems"
7 O’Connor, P., "Practical Reliability Engineering" John Wiley & Sons 1-512, 2012
8 Krebs A., "Performance Optimization of All-Terrain Robots: A 2D Quasi-Static Tool" 2006
9 Ghotbi B., "Mobility Evaluation of Wheeled Robots on Soft Terrain : Effect of Internal Force Distribution" 100 : 259-282, 2016
10 Thueer T., "Mobility Evaluation of Wheeled All-Terrain Robots" 58 (58): 508-519, 2010
1 Patel N., "The ExoMars Rover Locomotion Subsystem" 47 (47): 227-242, 2010
2 Ishigami G., "Terramechanicsbased Model for Steering Maneuver of Planetary Exploration Rovers on Loose Soil" 24 (24): 233-250, 2007
3 Helmick D. M., "Slip Compensation for a Mars Rover" 2005
4 Zhou, F., "Simulations of Mars Rover Traverses" 31 (31): 141-160, 2014
5 Wertz J. R., "Risk and Reliability" Microcosm Press 753-780, 2011
6 Delgado, I. R., "Preliminary Assessment of Seals for Dust Mitigation of Mechanical Components for Lunar Surface Systems"
7 O’Connor, P., "Practical Reliability Engineering" John Wiley & Sons 1-512, 2012
8 Krebs A., "Performance Optimization of All-Terrain Robots: A 2D Quasi-Static Tool" 2006
9 Ghotbi B., "Mobility Evaluation of Wheeled Robots on Soft Terrain : Effect of Internal Force Distribution" 100 : 259-282, 2016
10 Thueer T., "Mobility Evaluation of Wheeled All-Terrain Robots" 58 (58): 508-519, 2010
11 Lindemann, R. A., "Mars Exploration Rover Mobility Development" 13 (13): 19-26, 2006
12 Yi J., "Kinematic Modeling and Analysis of Skid-Steered Mobile Robots with Applications to Low-Cost Inertial-Measurement-Unit-Based Motion Estimation" 25 (25): 1087-1097, 2009
13 Ding L., "Interaction Mechanics Model for Rigid Driving Wheels of Planetary Rovers Moving on Sandy Terrain with Consideration of Multiple Physical Effects" 32 (32): 827-859, 2015
14 Ding L., "Experimental Study and Analysis on Driving Wheels’Performance for Planetary Exploration Rovers Moving in Deformable Soil" 48 (48): 27-45, 2011
15 Shamah B., "Experimental Comparison of Skid Steering vs. Explicit Steering for Wheeled Mobile Robot" Robotics Institute, Carnegie Mellon University 1999
16 Sutoh M., "Evaluation of Influence of Surface Shape of Locomotion Mechanism on Traveling Performance of Planetary Rovers" 2012
17 Yoshida K., "Development and Field Testing of MoonRaker: a Four-Wheel Rover in Minimal Design" 2013
18 Bartlett P., "Design of the Scarab Rover for Mobility & Drilling in the Lunar Cold Traps" 2008
19 Seo M, "Approaches for the Design of Mobile Platforms with Mobility, Economic Feasibility, and Robustness in Lunar Environments" 2017
20 Ghotbi B., "A Novel Concept for Analysis and Performance Evaluation of Wheeled Rovers" 83 : 137-151, 2015
21 Papadopoulos E, "A New Measure of Tipover Stability Margin for Mobile Manipulators" 1996
22 Ju G., "A Feasibility Study on Korean Lunar Exploration Mission" 2008