FBI using system to detect drones over wildfires, and the pilots

Lakeview IHC drone Operation
Lakeview Hotshots using a drone to assist with a burn operation in Alaska in 2019.

This article was first published at Fire Aviation.

The Federal Bureau of Investigation is using a new system to help wildland firefighters by detecting, identifying, and neutralizing drones that are illegally interfering with firefighting activities.

It is very dangerous to fly a drone near a fire at which helicopters or fixed wing aircraft are operating. A collision could impact the windscreen or damage the engine, props, rotors, or flight control surfaces, causing a crash. If a drone is seen near a fire the standard operating procedure is to remove all aircraft from the fire area until it is confirmed that the drone has left the scene. In other words, it interferes with firefighting efforts.

The FBI is working with the Los Angeles County Fire Department to use a system that can detect a drone flying over a fire within 30 seconds of it being launched.

From CNN:

“When the detection equipment finds the drone and identifies the operator’s location, we can very rapidly get that information to a ground intercept team who can then go make contact with that drone operator and essentially get them to stop flying that drone,” said James Peaco III, the weapons of mass destruction coordinator for the FBI’s Los Angeles field office.

With a special sensor, the team can set up a boundary as large or as small as desired and get notified if a drone flies into that area, instantly obtaining precise details such as elevation, direction, speed as well as where the drone took off from and where the controller is currently standing.

“The first thing we do is order them to bring the drone back, explain to him that there’s a wildfire and flying that drone during a wildland fire is actually a federal felony,” Peaco said.

It’s a federal crime punishable by up to 12 months in prison to interfere with firefighting efforts on public lands. Additionally, Congress has authorized the FAA to impose a civil penalty of up to $20,000 against any drone pilot who interferes with wildfire suppression, law enforcement, or emergency response operations. The FAA treats these violations seriously, and will immediately consider swift enforcement action for these offenses.

According to the US Forest Service, in 2019 at least 20 documented instances of unauthorized drone flights over or near wildfires in seven states (Arizona, California, Colorado, Nevada, New Mexico, Utah, Washington and Minnesota) resulted in aerial firefighting operations being temporarily shut down nine times. There is no centralized national mechanism to report unauthorized UAS flights over wildfires, so these are only the incidents that wildfire management agencies have become aware of, there are likely more that are not known about.

Suspending air operations could decrease the effectiveness of wildfire suppression operations, allowing wildfires to grow larger, and in some cases, unduly threaten lives, property, and valuable natural and cultural resources. The effects of lost aircraft time could be compounded by flames moving into untreated terrain.

Thanks and a tip of the hat go out to Tom and Gerald.

FBI assisting locals to detect drones over wildfires

drone wildland fire
Drone being used to assist wildland firefighters. Drone Amplified photo.

The Federal Bureau of Investigation is using a new system to help wildland firefighters by detecting, identifying, and neutralizing drones that are illegally interfering with firefighting activities.

It is very dangerous to fly a drone near a fire at which helicopters or fixed wing aircraft are operating. A collision could impact the windscreen or damage the engine, props, rotors, or flight control surfaces, causing a crash. If a drone is seen near a fire the standard operating procedure is to remove all aircraft from the fire area until it is confirmed that the drone has left the scene. In other words, it interferes with firefighting efforts.

The FBI is working with the Los Angeles County Fire Department to use a system that can detect a drone flying over a fire within 30 seconds of it being launched.

From CNN:

“When the detection equipment finds the drone and identifies the operator’s location, we can very rapidly get that information to a ground intercept team who can then go make contact with that drone operator and essentially get them to stop flying that drone,” said James Peaco III, the weapons of mass destruction coordinator for the FBI’s Los Angeles field office.

With a special sensor, the team can set up a boundary as large or as small as desired and get notified if a drone flies into that area, instantly obtaining precise details such as elevation, direction, speed as well as where the drone took off from and where the controller is currently standing.

“The first thing we do is order them to bring the drone back, explain to him that there’s a wildfire and flying that drone during a wildland fire is actually a federal felony,” Peaco said.

It’s a federal crime punishable by up to 12 months in prison to interfere with firefighting efforts on public lands. Additionally, Congress has authorized the FAA to impose a civil penalty of up to $20,000 against any drone pilot who interferes with wildfire suppression, law enforcement, or emergency response operations. The FAA treats these violations seriously, and will immediately consider swift enforcement action for these offenses.

According to the US Forest Service, in 2019 at least 20 documented instances of unauthorized drone flights over or near wildfires in seven states (Arizona, California, Colorado, Nevada, New Mexico, Utah, Washington and Minnesota) resulted in aerial firefighting operations being temporarily shut down nine times. There is no centralized national mechanism to report unauthorized UAS flights over wildfires, so these are only the incidents that wildfire management agencies have become aware of, there are likely more that are not known about.

Suspending air operations could decrease the effectiveness of wildfire suppression operations, allowing wildfires to grow larger, and in some cases, unduly threaten lives, property, and valuable natural and cultural resources. The effects of lost aircraft time could be compounded by flames moving into untreated terrain.

Thanks and a tip of the hat go out to Tom and Gerald.

Introduction to the drone academy

Drone academy
Still image from the Unmanned Aerial System Aerial Ignition Academy video, which is below.

The Unmanned Aerial System Aerial Ignition Academy trains personnel in the use of drones on prescribed fires and wildfires. The video below is a brief description of the academy.

Blackhawk helicopter flies for the first time without a pilot on board

UH-60 Blackhawk first autonomous flight
UH-60 Blackhawk in first autonomous flight. February 5, 2022. DARPA photo.

For at least two years Erickson Inc. has been working with Sikorsky and Lockheed Martin to develop a new pilot optional nighttime firefighting solution for helicopters, integrating Sikorsky’s MATRIX Technology into a wildfire suppression system. It would enable the S-64 Air-Crane, which was originally manufactured by Sikorsky, to fight wildland fires during the day or night. Fire Aviation first wrote about this project in February, 2020.

Sikorsky is not limiting this pilot optional capability to the Air-Crane, of course. On February 5 they completed the first of what they occasionally call “uninhabited flight” with a UH-60A Blackhawk. On the runway in Fort Campbell, Kentucky, one of Sikorsky’s pilots in a Blackhawk helicopter flipped the optionally piloted cockpit switch from two to zero, exited the aircraft, and walked across the runway.

Moments later the aircraft, identifiable by DARPA’s logo and tail number N600PV, completed a pre-flight check list, started its engines, spun up its rotors, and took off with no crew onboard. All of it happened fully autonomously.

Equipped with ALIAS (Aircrew Labor In-Cockpit Automation System), the Blackhawk began executing a 30-minute mission. To demonstrate its ability to adapt to a variety of mission environments, the uninhabited BLACK HAWK navigated at typical speed and altitude through a simulated cityscape, avoiding computer-generated buildings while route re-planning in real time.

The BLACK HAWK helicopter then autonomously executed a series of pedal turns, then maneuvered and completed a perfect landing. Once it shut itself down, the two pilots approached and reentered the aircraft. The OPV (optionally-piloted vehicle) switch was reversed from zero to two, and then the pilots taxied back down the runway.

This flight marks the first time that a Blackhawk has flown autonomously. It illustrates how ALIAS-enabled aircraft can help soldiers successfully execute complex missions with selectable levels of autonomy – and, said Lockheed, with increased safety and reliability.

We wrote last March that the helicopter which may be Erickson’s most well known Air-Crane, the one named Elvis, was being gutted down to the studs, so to speak. The company planed to rebuild N179AC as an S-64F+ that could operate without a pilot in the cockpit or autonomously.

"Elvis", an Erickson Air-Crane
“Elvis”, an Erickson Air-Crane. Credit: Erickson

Thanks and a tip of the hat go out to Tom, Rick, and Gerald.

Unmanned aircraft on wildfires — what have we learned?

By Sara Billings and Shaughn Maxwell

Type 3 UAS Module
Joe Milligan and William Bowman of the National Park Service Type 3 UAS Module.

Background

Fire Season 2021 has forced Incident Management Teams to be creative in how they engage with fires. One of the ways teams have been successful is with the use of Unmanned Aircraft Systems (UAS), informally known as drones.

Unmanned Aircraft Systems are now used regularly for commercial, military, public and private applications. Experts suggest that while this technology is already impressive, it is still in its infancy. Some have described the state of UAS technology like being in the pager stage before cell phones. Many government agencies, even those regulating UAS, are struggling to keep up with the pace of development and spread of UAS use in the national airspace.

Previous reports have been published regarding the utility of UAS on wildfires. The intent of this post is to use the Schneider Springs Fire to frame current and potential UAS applications for wildland firefighting operations.

The Schneider Springs Fire

Operational Picture

The Schneider Springs Fire on the Okanogan-Wenatchee National Forest started when a lightning storm blanketed the northern Cascade Mountain Range on the evening of August 3, 2021. During the next several days, the fire grew quickly in record hot and dry conditions. It was burning in heavy timber, standing dead trees, and very steep terrain that was difficult for ground resources to access.

“The UAS program will pay for itself by reducing the mental and physical wear and tear on our people.”

THOM TAYLOR, NIGHT OPERATIONS BRANCH, SCHNEIDER SPRINGS FIRE

The Schneider Springs Fire is being managed under a full suppression strategy. However, due to the large number of fires in the region and nationally, as indicated above, there are a limited number of available firefighting resources. When PNW Team 2, a Type 1 Incident Management Team, took over the fire it was at only three percent containment after another IMT had been managing the fire for two weeks.

Type 3 UAS
Type 3 UAS with Ignis PSD.

How UAS Were Used on Schneider Springs Fire

Swing Shifts

Swing shifts allowed both day and night operations to benefit from the UAS. Swing shifts are often used as an opportunity to make the most of burning conditions. This approach was noted to synergize UAS opportunities by making the most of both day and night fire behavior.

Burning at Night

The Type 3 UAS was used extensively at night for Plastic Sphere Dispenser (PSD) burning operations.

Intel Gathering

The UAS were able to access portions of the fire that were inaccessible to other aircraft, as well as areas that had limited visibility due to smoke.

Providing Real-Time Data

The Type 1 UAS on night shift was used to fly Infrared (IR) over the entire fire.

The Type 1’s data interpreter was especially useful when the U.S. Forest Service’s National Infrared Operations (NIROPS) orders were Unable to Be Filled (UTF).

After the Type 3 was used for PSD burning operations, it was then able to get back up in the air to grid for spots in the burn area—providing IR immediately after burning or gridding deep in the green through thick smoke.

Both the Type 1 and Type 3 UAS were used concurrently during burning operations. The Type 3 burned and the Type 1 looked for spots. Once they located a spot fire, these UAS could “walk” suppression crew members on the ground to a spot’s lat/long—always being within a few feet of the spot fire’s location.

Type 1 UAS
Kelly Lewis, BLM Alaska Fire Service, with a Type 1 UAS.

What Are We Learning?

Benefits

  • Better intel leads to better decisions. UAS can now improve how we manage risk by limiting exposure when scouting, patrolling, and firing.
  • UAS can identify spot fires. They also increase confidence that spots are being found—that you wouldn’t otherwise know about.
  • The UAS can support patrol operations with high effectiveness and less people, ultimately reducing exposure.
  • Smoke was not a limiting factor during UAS PSD or recon operations. Utilizing the UAS provided precision PSD operations, related to both timing and geography.
  • UAS can reduce the human exposure involved in helicopter PSD operations.
  • UAS can fly in smoky or foggy conditions not ideal for manned aircraft.
  • A UAS can cover more ground than a person on foot over various terrain conditions.
  • Night operations means no conflict with other aircraft.

Challenges

  • More aircraft increases the coordination workload – including between manned and unmanned aircraft.
  • Air Operations and ground operations must coordinate on priorities for the entire incident.
  • With few UAS modules available, the existing ones are often required to drive back and forth trying to cover more than one fire incident.
  • The learning curve of not having previously worked with UAS.
  • Not knowing what products the UAS can provide, having no set standards.
  • For the Type 1 UAS it can take 24-48 hours to get it running on an incident—due to FAA approvals, Temporary Flight Restrictions, Landing and Recovery Zones (LRZs), Land Use Agreements, Mission Aviation Safety Plans, etc.
  • There will always be a need for manned aircraft. In terms of situational awareness, drones can’t see what a person looking out of an aircraft can see.
  • Current UAS availability is a limitation. There are not enough pilots, aircraft, or modules to meet the demand. Regional UAS Coordinators work with incidents and the Geographic Area Coordination Centers (GACC) to set priorities for the modules and equipment. In doing so, they try their best to meet the needs of the fire and the region. There are a lot of pressure points: A high demand for the equipment; the pressure of “use it or lose it”; and the pressure to burn even if conditions aren’t right.
  • A UAS connected to a suppression module, such as a hotshot crew, means that you’re pulling one to three hotshots off the crew for UAS operations which may limit the crew’s capabilities.
  • UAS modules are not standardized. Currently, there is no established configuration. Equipment is often shared, including: big TVs, batteries, staffing (most modules are interagency), trailers vs trucks.
  • UAS have limited flight times. The Type 3 drone has anywhere from a 15-25 minute flight time, depending on payload (PSD operations vs IR).
  • UAS pilots need to have more than just UAS experience. They need to know what they’re seeing and how to talk on the radio. Having Firing Boss experience is very valuable.
  • Line of sight is still a limitation for the Type 3 UAS, which, due to terrain and vegetation, is about two miles.
  • Type 1 and Type 2 UAS are only available as Call When Needed (CWN) contracted aircraft.

UAS Possibilities for the Future?

  • A UAS—or multiple UAS—being assigned to every incident. Having dedicated federal UAS modules rather than taking from other modules.
  • Integrating UAS with incident Air Operations.
  • Development of UAS leadership positions.
  • Full time “eyes in the sky”—that could replace recon and patrol.
  • Eliminate the use of a light helicopter for PSD operations. Aerial ignition modules.
  • Better battery life for longer flight times.
  • Higher payloads and flight times for operations such as bucket drops.
  • Fireline explosives.
  • Search and Rescue on a fire.
  • More structure and standardization.

For More Information About How UAS can Benefit the Wildland Fire Community:

“What Can Drones Do For Me?” Rapid Lessons Sharing.

And:

 

This article was first published on the Wildland Fire Lessons Learned Center’s blog.

Fully-electric mobile command center developed for unmanned aerial systems

Draxxon UAS Command Trailer
Draxxon UAS Command Trailer. Photo by Draxon.

As unmanned aerial systems (UAS), or drones, become more capable and ubiquitous on wildfires the infrastructure supporting the flight crews will undoubtably become more sophisticated. Typically they work out of a cargo trailer or pickup truck and may have a generator to recharge the batteries on the controllers and aircraft. But it does not always have to be done that way.

Unmanned Aerial System (UAS) module drone Sawtooth Fire
A conventional Unmanned Aerial System (UAS) module on the Sawtooth Fire, June 3, 2020. InciWeb photo.

Two companies, Volta Power Systems and Draxxon have partnered to develop the first fully electric battery-powered towable Command Center designed for UAS. The DX-816 center allows organizations to integrate UAS into other command and control systems. The automotive-grade Volta system allows the entire mobile center to run up to 24 hours on a single system charge without the use of a generator or idling the towing vehicle.

The customizable setup offers both interior and exterior monitoring, as well as a fold-down rooftop UAS flight station. The whole unit is equipped with climate control and LED lighting for reliable visibility, day or night.

Draxxon UAS Command Trailer
Draxxon rooftop UAS flight station mounted on the Command Trailer. Photo by Draxon.
Draxxon UAS Command Trailer
Draxxon Command Trailer. Photo by Draxon.

The trailer’s 24,000 Wh Volta system recharges via a shore power connection, but unlike many technologies, it doesn’t require special charging infrastructure. The power pack can charge safely from a standard electrical wall outlet. Distributed through a 5,000W AC inverter, the system eliminates the need for a generator on-site, with enough stored energy to power the trailer without noise or emissions.

Draxxon UAS Command Trailer
Draxxon Command Trailer. Photo by Draxon.