Many thanks to Workshop Sponsors: George P. Williams and Scott Smith - Autonomous systems
Project at The Boeing Company (Mathematics and Computing Technology - Enabling Technologies
Autonomous and Intelligent Systems Program).
The 2004 MAV Workshop was a tremendous success! Attendees
received a CD-ROM containing the panelists' PowerPoint presentations and videos. These talks
were recorded and the streaming RealAudio links were added below on May 4th, 2004. Clicking
on the talk title will play the audio. The RealAudio plug-in
is a free download.
Schedule, Panel and Discussion Leaders
| Time | |||
| 08:00-08:50 | Coffee and Pastries | ||
| 08:50-09:00 | Prof. Paul Oh | Drexel University | Welcoming Remarks |
| 09:00-09:30 | Peter Corpac | DARPA TTO | Future Missions and Roadmap |
| 09:30-10:00 | Gary Cruz | Honeywell | MAV Program Overview |
| 10:00-10:30 | James Kellogg | Naval Research Laboratory | Multiple Mobility Modes |
| 10:30-10:50 | Coffee Break | ||
| 11:00-11:30 | Dr. Thomas Adams | Boeing Future Combat Systems | Technology Insertion |
| 11:30-12:00 | Dr. Mark Mears | Air Force Research Lab | Collaborative Control |
| 12:00-12:30 | Prof. Ron Fearing | UC Berkeley | Micro-mechanical systems |
| 12:30-14:00 | Lunch | ||
| 14:00-14:30 | Timothy Hoffman | DStar Engineering | Propulsion Systems |
| 14:30-15:00 | Prof. N. Papanikolopoulos | U. Minnesota | Ground & Airborne Robot Teams |
| 15:00-15:30 | Dr. Geoffrey Barrows | Centeye | Neuromorphic Sensors |
| 15:30-16:30 | Discussion Groups | ||
| 16:30-17:00 | Dr. Dave Musliner | Honeywell | Autonomous Systems |
| 17:00-17:30 | Dr. Larry Matthies | NASA Jet Propulsion Lab | Vision-based Sensing |
| 17:30-18:00 | Closing Remarks | ||
| Discussion Leaders | ||
| Prof. Vijay Kumar | University of Pennsylvania |                                     |
| Prof. Michael Nechyba | University of Florida Gainesville | |
| Dr. Peter Corke | CSIRO | |
| Prof. Gaurav Sukhatme | USC | |
| Prof. Sunil Agrawal | University of Delaware | |
| Dr. Tomonari Furukawa | University of New South Wales |
Organizers
| Prof. Paul Y. Oh | Dr. Thomas Adams | |
| Drexel University | Boeing Phantom Works | |
| Philadelphia PA 19104 | Philadelphia PA 19142 | |
| paul@coe.drexel.edu | thomas.l.adams@boeing.com | |
Panelist Bios
DARPA Tactical Technology Office: is
developing small, scalable, vertical-takeoff ducted fan UAVs in the range of 10
- 100 lbs. A small version is being developed within the Micro Air Vehicle (MAV)
ACTD, and will deliver and test a number of systems using soldiers from the 25th
infantry division in Hawaii during the timeframe 2004 - 2006. If these are
successful, these systems will remain behind as organic assets for those troops.
Larger airframes are being developed within the Organic Air Vehicle (OAV)
program. Nineteen- and twenty nine-inch airframes will be flown that are capable
of carrying larger payloads with improved capabilities. Both systems are
intended for eventual incorporation into the Army Future Combat System (FCS)
program.
Gary Cruz: is currently at Honeywell and is the Program Manager for
the DARPA Organic Aerial Vehicle (OAV) program. His experience also includes the
FCS trade studies, IPT lead, Project Engineer and Lead Systems Engineer. He has
worked vehicles like the Crusader, CH-47, G-IV, ATR 72, Dash 8, C-160, Convair
580, RC-12K, Jetstream 41, IPTN N250, and Learjet Model 60 & 45.
James C. Kellogg is a research engineer for the Tactical Electronic
Warfare Division at the Naval Research Lab (NRL) developing UAVs. He was the
payloads engineer on the Dragon Eye and SeaALL UAVs, and is the principal
investigator for NRL’s micro air vehicle research. His present area of research
is robotic platforms with multi-mode mobility and capabilities for
self-refueling
Dr. Tom Adams has been with Boeing Aerospace since 1997 and is
currently with the Mathematics and Computing Technology Group. He is the
Unmanned Air Vehicle representative to the Future Combat Systems Spiral
Development and Technology Planning Integrated Product Team. He has extensive
experience in the development of applications of artificial intelligence
technology including intelligence analysis workstations for tracking the
development of foreign weapon systems, telemetry analysis, and chemical weapons
facility modeling; a model-based fault diagnosis and load management system for
the space station; the control architecture for an autonomous underwater
vehicle; energy and environmental modeling for the pulp and paper and textile
industries; and integration In earlier work, Dr. Adams has been employed by
Stanford Research International, ESL, Advanced Decision Systems, Battelle
Pacific Northwest National Laboratory and Computron
Dr. Mark Mears is a member of Control Center of Excellence at the Air
Vehicles Directorate at Wright-Patterson Air Force Base. He has been involved
with Reconfigurable Control and Intelligent/Learning control work to make
aircraft more robust to damage and to optimize performance based on remaining
capability. He has also worked with DARPA on the MICA (Mixed Initiative Control
of Automa-teams) program that developed technology for cooperative control of
multiple UAVs used for military missions. His talk will cover some of the issues
related to collaborative, coordinated, cooperative control of multiple UAVs.
Prof. Ronald Fearing is faculty at the University of California
Berkeley in the Department of Electrical Engineering and Computer Sciences. His
principal research interests are in micro robotics, tactile sensing,
teletaction, and dexterous manipulation. He received the Presidential Young
Investigator Award in 1991.
D-STAR Engineering: Mr. Dev is founder and President of D-STAR Engineering Corporation, specializing in research, design, development and manufacture of automotive, aerospace and propulsion / power systems. D-STAR is currently focused on developing advanced small diesel and turbine engines for UAVs and UGVs, as well as power systems for hybrid-electric applications.
Mr. Hoffman oversees much of the piston engine programs, including the 1.5 hp and 3.0 hp piston engine programs for MAV application. He also helps to manage the 50-Watt soldier micro-generator set program and is the principal investigator of the upcoming 700-Watt miniature tactical generator set / auxiliary power unit program. Mr. Hoffman also aids writing technical proposals for new product opportunities. He received both his Bachelor of Science and Master of Science in Mechanical Engineering at Bucknell University, and is a member of the ASME and SAE.
Prof. Nikolaos P. Papanikolopoulos is both the Director of the Center
for Distributed Robotics and faculty member of the Department of Computer
Science at the University of Minnesota. He has authored or coauthored more than
160 journal and conference papers in robotics-related research. In addition to
his many awards, he is also an NSF CAREER receipient.
Dr. Geoffrey Barrows is President of Centeye, a firm that specializes
in the development of novel and unique visual microsensors for robotics
applications. He was recently named a "Top Young Innovator" by the MIT
Technology Review and included in their TR100 list for 2003.
Dr. David Musliner is a Principal Research Scientist at the Automated
Reasoning group at the Honeywell Technology Center. His current research
projects include developing automatic controller synthesis techniques for hybrid
systems, and developing extensions to the Cooperative Intelligent Real-Time
Control Architecture (CIRCA) for multi-agent planning and control in real-time
domains including unmanned vehicle control and network security.
Dr. Larry Matthies is Supervisor of the Machine Vision Group at the
Jet Propulsion Laboratory (JPL). He obtained a PhD in computer science from
Carnegie Mellon University in 1989 and has been at JPL since. His group was a
major software contributor to the Mars Exploration Rover (MER) mission now
operating on Mars, including software for the Descent Image Motion Estimation
System (DIMES) and stereo vision, obstacle avoidance, and visual odometry
onboard the rovers. His talk will survey work at JPL on machine vision for
autonomous navigation of UAV's, including visual feature tracking for UAV state
estimation, mapping the terrain below a UAV, and autonomous landing hazard
avoidance.
visitors since
03/01/04