Title: SSC Pacific Unmanned Systems Programs Technology Solutions and Identified Gaps Michael Bruch http:ww
1SSC Pacific Unmanned Systems Programs -
Technology Solutions and Identified GapsMichael
Bruchhttp//www.spawar.navy.mil/robots/
2Unmanned Systems Branch
- Over 70 in-house personnel
- 47 Government scientists and engineers
- 28 years in unmanned ground vehicles
- OSD-designated Center of Excellence for Small
Robots - Unmanned Systems Naval Reserve Unit
- Pioneers in pushing autonomy
- Recognized innovators in Command and Control
- Strong emphasis on collaboration
3Robotic Systems Pool (RSP)
Remington
Accelerates the technological advance of US
military forces and law enforcement by making the
latest robotic technology available through no
cost loans.
- Provides government
- agencies at all levels with
- the opportunity to evaluate and experiment with
mobile robots in their own unique operational
domains. - Users can make appropriate acquisitions of robots
based on their experience. - Robot Developers benefit from the users feedback
and recommendations, enabling them to improve
their designs and better meet - the emerging needs.
ARA
Inuktun
Developers
Foster-Miller
Allen-Vanguard
Technology
Feedback
iRobot
SSC San Diego
Users
Spiral Development
World Trade Center
Iraq/Afghanistan
Utah State University
4Current UXVs Are Hard To Operate
- UUVs - Relatively high level of autonomy due to
communications challenges - Little to no useful data available until mission
complete - Not in widespread use
- UAVs - Air Force criticized by Congress for not
having enough operational Predators in CENTCOM - Responded by retasking F-16 pilots to fly UAVs
- Over one-third of Predator fleet has crashed
(4.5M each) - USVs - Current operational systems limited to
waypoint navigation - Lack collision avoidance
- Requires human in the loop to monitor video
- UGVs - EOD robots require full teleoperation
- Reduces situational awareness
- Endangers the warfighter
- All
- Raw video streams consume vast chunks of
bandwidth - High-bandwidth line-of-sight RF links provide
limited standoff
5As Autonomous as Desired -
As interactive as Required - Raleigh Durham,
2008
- Autonomy and Autonomous Systems have and will
continue to change how war is waged, by whom, and
across all phases. - Will the US lead this revolution?
- Will we be a fast follower or merely observe?
- Should we capitalize on the opportunity to reduce
not just the number of personnel on assets but
the number of manned assets? - What mission space will be ceded to unmanned
systems?
6Towards Advanced Autonomous Robots
- Localization Indoors/Outdoors, GPS-denied
- Registration 3D SLAM
- Tactical Awareness Machine understanding of its
environment and surroundings - Human-Robot Interfaces Natural methods of
communicating to a robotic squad member - Interoperability Robot to robot (and OCU) and
component-level standard interfaces, including
toolkits to build those interfaces
7Urban Environment Exploration (UrbEE)
- Operational Relevance
- Enhance teleoperated systems with autonomous
behaviors that can reliably perform in
challenging urban environments with significantly
reduced control burden on the operator - Provide semi-autonomous mapping and exploration
behaviors to support reconnaissance operations in
GPS-denied environments - Perform objective tests/experiments to metric
performance in order to realistically assess and
advance technology readiness levels
Early mapping results of two office buildings at
SSC
- Software Technology Development
- Autonomous navigation in the presence of unique
urban characteristics (i.e., rough terrain,
paved/unpaved roads, curbs, etc.) - Enhanced localization and path planning without
GPS - Seamless transition between outdoor and indoor
settings - Efficient exploration of urban structures
- Modular for cross-platform compatibility
UrbEE Test Site Camp Pendleton MOUT training site
83D Visualization for EOD Robots (3DVis)
- Operational Relevance
- Manipulation tasks with current EOD UGVs are very
difficult - Need a system that will provide a high-resolution
3D model of an object of interest and allow the
operator to view and control the UGV manipulator
in a virtual environment using that model.
- Accomplishments
- Evaluation of various 3D, large-scene modeling
technologies - Structure-from-motion/multi-view stereo
- Laser scanning fused with color image data
- Spatial phase video
- Registration software/algorithms
- Visualization techniques/applications
- Contracts awarded to UNC and JPL
Movie
9Unmanned Surface Vehicle (USV)
- Operational Relevance
- Current LCS USVs have no Obstacle Detection (OD)
capabilitys - Maritime environment poses different complexities
than the ground environment - Generally higher speeds
- Moving obstacles with nearly random trajectories
- Changing sea states
- Small obstacles hide in the waves
Movie
- Accomplishments
- Converted Sea-Doo Challenger 2000 jet boat for
- semi-autonomous operation.
- Port UGV hardware/software for teleoperation and
waypoint navigation. - Developed obstacle avoidance capability for fully
autonomous navigation - Deliberative path planning
- Reactive obstacle avoidance
- Developed and integrate sensor technologies to
support autonomous operation - Digital ARPA Radar
- Vision (stereo and monocular)
- Multi-line scanning LADAR
10Multi-Robot Operator Control Unit (MOCU)
- Operational Relevance
- Provides multi-vehicle control
- Provides an open, extensible framework for others
to build upon - Currently the common OCU for the Littoral Combat
Ship (LCS) USV programs (ASW and MIW) - Slated as the common controller for the next
generation family of EOD UGVs (AEODRS) - Used by a wide variety of other organizations
- Characteristics
- Control multiple sets of heterogeneous vehicles
- Vehicle and protocol type independent
- Modular
- Scalable
- Flexible User interface
- Ranked best in Technology and Universality in
the JGRE Common Robotic Controller Study
11SSC/CCATSuccessfully Leveraging Industry
- CCAT ran three national solicitations in 2 years
with 17 awards focused on user-identified needs
for man-portable UGVs - Has already yielded new capabilities not expected
for another 10 to 15 years! - Most significantly
- Feasibility demo of Warfighter Associate (i.e.
Robotic Wingman for dismounted soldiers) - Dec
07 - Voice control of supervised autonomy in noisy
environments - Dec 08 - Door opening manipulator to facilitate autonomous
search - Dec 08 - Navigator payload for iRobot PackBot - Dec 08
- Company has adopted as a commercial product
- First-gen in-theater evaluation conducted in Iraq
- Jan 09 - Second-gen accepted for Army Expeditionary
Warrior Experiment (AEWE) Spiral F - Navigator payload under contract for FMI Talon -
Dec 09
Movie
12For Additional Information
H.R. (Bart) Everett Chief Engineer for Robotics,
Advanced Systems and Applied Sciences Division
(Code 71705) 619-553-3672, e-mail
bart.everett_at_navy.mil Hoa G. Nguyen Branch Head,
Unmanned Systems Branch (Code 71710) 619-553-1871,
e-mail hoa.nguyen_at_navy.mil Space and Naval
Warfare Systems Center Pacific 53406 Woodward
Road San Diego, CA 92152-7383 http//www.spawar
.navy.mil/robots/