This DARPA program will give Army and Marine aviators a robot co-pilot
This DARPA program will give Army and Marine aviators a
robot co-pilot
A DARPA program is building software to allow helicopters
to fly autonomously so that pilots can focus on tasks other than flying while
on missions.
By Todd South October 31, 2018
Army aviators recently ran helicopters through missions
with a kind of robot co-pilot for the first time, using technology a company
says will be demonstrated in coming months on Black Hawk helicopters.
The pilots directed an “optionally piloted helicopter”
through mission scenarios ranging from obstacle avoidance to contour flight,
according to a release.
The pilots used the technology to move a modified
commercial helicopter, the S-76B Sikorsky, known as Sikorsky Autonomy Research
Aircraft or SARA, through the scenarios designed under a Defense Advanced
Research Projects Agency program with Lockheed Martin.
The automated capabilities are part of the Army’s larger
Future Vertical Lift program, which aims to revolutionize how helicopters are
employed by the services.
“Future vertical lift aircraft will require robust
autonomous and optimally piloted systems to complete missions and improve
safety,” said Chris Van Buiten, vice president of Sikorsky Innovations.
While personnel with the company have been developing and
testing the technology for some time and flown more than 300 hours of autonomous
flight, the Oct. 29 event at Fort Eustis, Virginia, was the first time
non-company pilots operated the aircraft.
"These aviators experienced the same technology that
we are installing and testing on a Black Hawk that will take its first flight
over the next several months,” Buiten said.
The autonomous software and hardware, part of a
tailorable package aimed to fit existing manned helicopters such as the Black
Hawk, executed specific scenarios, including:
·
Automated takeoff and landing: The helicopter
autonomously executed takeoff, traveled to its destination, and autonomously
landed.
·
Obstacle avoidance: The helicopter’s LIDAR and
cameras enabled it to detect and avoid unknown objects such as wires, towers
and moving vehicles.
·
Automatic landing zone selection: The
helicopter’s LIDAR sensors determined a safe landing zone.
·
Contour flight: The helicopter flew low to the
ground and behind trees.
“We’re demonstrating a certifiable autonomy solution that
is going to drastically change the way pilots fly,” said Mark Ward, Sikorsky
chief pilot. “We’re confident that MATRIX Technology will allow pilots to focus
on their missions. This technology will ultimately decrease instances of the
number one cause of helicopter crashes: Controlled Flight Into Terrain (CFIT).”
DARPA Program Manager Graham Drozeski said that with the
Aircrew Labor In-Cockpit Automation, or ALIAS, they’re trying to balance human
and autonomous contributions through work with the software and pilots.
Lt. Col. Carl Ott, chief of flight test at the Army’s
Aviation Development Directorate, echoed that comment, saying that the Army
refers to the type of capability being pursued as “mission adaptive autonomy.”
“It’s there when the pilot needs the aircraft to fly
itself, keep it free of obstacles, so the pilot can focus on more of a mission
commander-type role, but the pilot’s also able to interact with system to
re-suggest or re-route or re-plan on the fly,” Ott said.
Being able to do that seamlessly without shutting down
the system are key capabilities for complex flight.
Dave Baden, the Marine Corps' Future Vertical Lift
program manager, said the technology is important to reduce pilot workload.
“Let the mission crews concentrate on what they’re really
there to do,” Baden said.
That includes medevac, close air support or other tasks.
This doesn’t replace pilots, though.
Ott was quick to mention that basic piloting skills and
“air sense” to avoid obstacles and maneuver the aircraft remain crucial to
piloting.
“And that just comes with time and experience,” Ott said.
The system includes a user interface that Ott said is
easily replicable in a simulator for training.
Drozeski said that the next step will be to fully
integrate the ALIAS system will go beyond just “wiggling the sticks” and to
allowing the autonomy to operate like a co-pilot with access to the entire
system.
This DARPA program will give Army and Marine aviators a
robot co-pilot
A DARPA program is building software to allow helicopters
to fly autonomously so that pilots can focus on tasks other than flying while
on missions.
By Todd South October 31, 2018
Army aviators recently ran helicopters through missions
with a kind of robot co-pilot for the first time, using technology a company
says will be demonstrated in coming months on Black Hawk helicopters.
The pilots directed an “optionally piloted helicopter”
through mission scenarios ranging from obstacle avoidance to contour flight,
according to a release.
The pilots used the technology to move a modified
commercial helicopter, the S-76B Sikorsky, known as Sikorsky Autonomy Research
Aircraft or SARA, through the scenarios designed under a Defense Advanced
Research Projects Agency program with Lockheed Martin.
The automated capabilities are part of the Army’s larger
Future Vertical Lift program, which aims to revolutionize how helicopters are
employed by the services.
“Future vertical lift aircraft will require robust
autonomous and optimally piloted systems to complete missions and improve
safety,” said Chris Van Buiten, vice president of Sikorsky Innovations.
While personnel with the company have been developing and
testing the technology for some time and flown more than 300 hours of autonomous
flight, the Oct. 29 event at Fort Eustis, Virginia, was the first time
non-company pilots operated the aircraft.
"These aviators experienced the same technology that
we are installing and testing on a Black Hawk that will take its first flight
over the next several months,” Buiten said.
The autonomous software and hardware, part of a
tailorable package aimed to fit existing manned helicopters such as the Black
Hawk, executed specific scenarios, including:
·
Automated takeoff and landing: The helicopter
autonomously executed takeoff, traveled to its destination, and autonomously
landed.
·
Obstacle avoidance: The helicopter’s LIDAR and
cameras enabled it to detect and avoid unknown objects such as wires, towers
and moving vehicles.
·
Automatic landing zone selection: The
helicopter’s LIDAR sensors determined a safe landing zone.
·
Contour flight: The helicopter flew low to the
ground and behind trees.
“We’re demonstrating a certifiable autonomy solution that
is going to drastically change the way pilots fly,” said Mark Ward, Sikorsky
chief pilot. “We’re confident that MATRIX Technology will allow pilots to focus
on their missions. This technology will ultimately decrease instances of the
number one cause of helicopter crashes: Controlled Flight Into Terrain (CFIT).”
DARPA Program Manager Graham Drozeski said that with the
Aircrew Labor In-Cockpit Automation, or ALIAS, they’re trying to balance human
and autonomous contributions through work with the software and pilots.
Lt. Col. Carl Ott, chief of flight test at the Army’s
Aviation Development Directorate, echoed that comment, saying that the Army
refers to the type of capability being pursued as “mission adaptive autonomy.”
“It’s there when the pilot needs the aircraft to fly
itself, keep it free of obstacles, so the pilot can focus on more of a mission
commander-type role, but the pilot’s also able to interact with system to
re-suggest or re-route or re-plan on the fly,” Ott said.
Being able to do that seamlessly without shutting down
the system are key capabilities for complex flight.
Dave Baden, the Marine Corps' Future Vertical Lift
program manager, said the technology is important to reduce pilot workload.
“Let the mission crews concentrate on what they’re really
there to do,” Baden said.
That includes medevac, close air support or other tasks.
This doesn’t replace pilots, though.
Ott was quick to mention that basic piloting skills and
“air sense” to avoid obstacles and maneuver the aircraft remain crucial to
piloting.
“And that just comes with time and experience,” Ott said.
The system includes a user interface that Ott said is
easily replicable in a simulator for training.
Drozeski said that the next step will be to fully
integrate the ALIAS system will go beyond just “wiggling the sticks” and to
allowing the autonomy to operate like a co-pilot with access to the entire
system.
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