Cooperative EVA/Telerobotic Surface Operations in Support of Exploration Science
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1 Cooperative EVA/Telerobotic Surface Operations in Support of Exploration Science David L. Akin
2 Planetary Surface Robotics EVA support and autonomous operations at all physical scales Athena-class scout vehicles Individual EVA support systems 1-2 person transports Extended access devices (e.g., cliff face sampling) Base assembly and maintenance systems (cranes/dozers) No single system will be capable of fulfilling all requirements All systems should be capable of autonomy, high-level supervisory control, and teleoperation
3 EVA Difficulties from Apollo Extended traverses Transport of tools, samples, and instruments Navigation Situational awareness Drilling Sampling Sample documentation Communications Safety/Rescue
4 Robotic Capabilities for EVA Support Surface mobility system Extended traverses Transport of tools, samples, and instruments Safety/Rescue High-precision navigation system Navigation Safety/Rescue Multiple camera systems Situational awareness Sample documentation Robotic Manipulation Capabilities Drilling Sampling Communications Relay to base and Earth Public involvement
5 Astronaut Support Vehicle Motivation Lunar exploration Recent field tests On-orbit operations Interplanetary exploration - Mars Rationale Improve extravehicular activity (EVA) productivity Increase EVA safety Alleviate load carried by astronauts Reduce astronaut fatigue Provide emergency life support
6 Three ASV Preliminary Designs Graduate robotics design class in Fall, 1998 Trade study between arm configurations Precursor to integrated team design effort Displayed at EVA Forum in October 1998 Formation of final mission assumptions, design scenarios, and design requirements Mission requirements Support two astronauts on 4 hour EVA 400-day useful life Capable of astronaut-traversable terrain (0.3m obstacle, maximum astronaut speed = 4.8 kph) Carry EVA tools and contingency life support
7 Small Single-arm Assistant Single dexterous arm Total mass = 760 kg Power = 960 W 75 kg of samples Unable to carry astronauts
8 Dual-arm Assistant Pair of dexterous arms Total mass = 700 kg Power = 1000 W 370 kg of samples Modular 2-hr battery packs and 75 kg sample storage containers Ability to carry one astronaut
9 Large EVA Assistant Large positioning manipulator and pair of dexterous arms Total mass = 1700 kg Power = 4000 W 500 kg of samples Able to transport two astronauts to and from site
10 Lessons Learned - Preliminary Designs Decrease mass, power, and volume Parameters driving rover size: Manipulators Astronaut transport ability One arm sufficient for most geological tasks Sample storage a function of quality of science that can be done on site Define feasible amount of samples to return to base More precise mission scenarios
11 Rover Design Assumptions Two astronauts per EVA Rover assisted EVAs conducted only during daylight hours Astronaut maximum speed = 4.8 kph 4 hour EVA duration, 6 km from base Rover not required to navigate terrain unsuitable for suited astronaut Largest surmountable obstacle = 45 cm Maximum traversable slope = 20 Martian satellite terrain images available Deployable Instrument Packages (DIPs) Mass = 20 kg Pre-integrated 7 DOF dexterous manipulator payload Target mass = 300 kg
12 Design Requirements - Terrain Maximum rover speed = 8 kph Forward and lateral operations on 20 maximum slope Obstacle clearance of 45 cm 4-hour EVA/day, 6 days/week, for 400 days 8 hour maximum battery contingency
13 Design Requirements - Payload Retrieve, label, catalogue, and carry samples Carry and support one 7 DOF dexterous arm Carry astronaut hand tools Provide 2 hours contingency life support for two astronauts Support minimal in-field scientific testing
14 Design Requirements - Autonomy Basic obstacle avoidance Track two astronauts at all times and relay video to base Astronaut awareness and safety parameters Maintain current position estimate
15 Second Design Iteration
16 Science Payload Support geological surveys, sample collection, environmental data collection and minimal in-field testing Cameras Panospheric, stereo, infrared, manipulator arm Telescope, microscope Images stored digitally on the rover and at base camp Sample bin and packager Dexterous manipulator arm Total mass = 79 kg Maximum power = 750 W
17 Manipulator Arm 7 DOF pre-integrated package Requires power and intelligence from rover Length = 114 cm Tip force = 111 N Mass = 18 kg Peak power: 590 W End effectors Scooper/grasper, jackhammer
18 EVA-Robotic Interface Modes Geological site survey at all scales Variable zoom telescope for close site inspections Microscope for rapid categorization of samples Images fed to HUD in EVA suit EVA-directed site operations Target designation by marker, laser spot, or gesture High-level voice command Autonomous EVA tracking via vision system or laser scanners Ability to control dexterous manipulators through nonintrusive master-slave arrangements Contingency command interfaces Ability to manually drive onboard/offboard Access to graphical display for system status, contingency resolution Redundant safety systems
19 EVA/Multiple Robot Cooperation
20 Continuing Research Reconsideration of requirements for EVA support rover Single astronaut ride-on capability in nominal operations Simplification of basic unit (four-wheel independent suspension instead of six-wheel rocker bogey) Incorporation of mission-specific trailers along with basic unit Dual dexterous manipulators Detailed design of experimental unit Modular structure for subsequent reconfiguration Standard wheel assembly (all-wheel steer, all-wheel drive) Initiated research into critical technologies Autonomous following incorporating obstacle avoidance EVA interfaces for direct vehicle control
21 SSL Rover Body Concept
22 Advanced EVA Support Rover Concept
23 Robotic Access to Restricted Sites
24 Robotic Rescue of EVA Crew
25 Why Do We Need Humans? Rapid high-resolution visual discrimination Experience and judgement Dexterity Generically-applicable physical strength Resiliancy Maintenance and repair Improvisation Public Involvement Fun
26 Conclusions Robotics are critical for human support and performance enhancement Robots in all sizes will be required for human planetary exploration Think of EVA suit systems and robotic support elements as a single integrated system Command and data interfaces Commonality of components (e.g., batteries) Interoperability Critical near-term capabilities are mobility, safety, and specialized sampling Human/robotic cooperative systems will evolve to true symbiotic relationship between humans and robots
27 For More Information
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