With the recent declarations of intent by spacefaring nations to return to the Moon and Mars, this comprehensive book is most timely. It covers the ExoMars Rover to which both authors contributed, as well as the US Mars Exploration Rover program.

The increasing adoption of terrain mobility planetary rovers for the investigation of planetary surfaces emphasises their central importance in space exploration. This imposes a completely new set of technologies and methodologies to the design of such spacecraft and planetary rovers are indeed, first and foremost, spacecraft. This introduces vehicle engineering, mechatronics, robotics, artificial intelligence and associated technologies to the spacecraft engineer's repertoire of skills. Planetary Rovers is the only book that comprehensively covers these aspects of planetary rover engineering and more. The book:

• discusses relevant planetary environments to rover missions, stressing the Moon and Mars;

• includes a brief survey of previous rover missions;

• covers rover mobility, traction and control systems; • stresses the importance of robotic vision in rovers for both navigation and science; • comprehensively covers autonomous navigation, path planning and multi-rover formations on other planets;

• introduces sample acquisition and autonomous science with an emphasis on astrobiology as the raison d'être of rover missions;

• presents a special case study on the exploration of Europa;

• discusses future rover concepts, including a brief exploration of the role of biomimetics.

Discusses relevant planetary environments to rover missions, stressing the Moon and Mars Includes a brief survey of previous rover missions Comprehensively covers autonomous navigation, path planning and multi-rover formations on other planets Presents a special case study on the exploration of Europa Includes supplementary material: sn.pub/extras

Autorentext
Professor Alex Ellery is a Canada Research Chair in Space Robotics & Space Technology in the Mechanical & Aerospace Engineering Department at Carleton University, Ottawa, Canada. He holds a BSc (Hons) in Physics, MSc in Astronomy and PhD in Astronautics & Space Engineering. He is also an alumnus of the International Space University. He is a Chartered Engineer and holds Fellowships at the Institution of Engineering & Technology, Institution of Mechanical Engineers, and the Royal Aeronautical Society. He was formerly at the Surrey Space Centre at the University of Surrey where he was awarded the George Stephenson medal by the Institution of Mechanical Engineers (2005). He was formerly Chair of the Astrobiology Society of Britain (2005/2006).

Inhalt

Introduction.- Planetary environments.- Survey of past rover missions.- Rover mobility and locomotion.- Rover sensorimotor control systems.- Rover visionfundamentals.- Rover visionadvanced capabilities.- Autonomous navigationbehaviors and architectures.- Autonomous navigationself-localization and mapping (SLAM).- Rover path planning.- Robotic sample acquisition.- Onboard autonomous science.- Case study: Robotic exploration of Europa.- Future rover concepts.