DIRECTED-ENERGY WEAPONS (DEW)

ECOCIDE
noun
destruction of the natural environment,
especially when deliberate.

DIRECTED-ENERGY WEAPONS (DEW)

(Weaponry)

YAL-1 Airborne
Laser Turret

(Boeing)

IN THE AIR

The Official Story

YAL-1 AIRBORNE LASER
(Boeing)

The Boeing YAL-1 Airborne Laser Testbed (formerly Airborne Laser) weapons system was a megawatt-class chemical oxygen iodine laser (COIL) mounted inside a modified military Boeing 747-400F. It was primarily designed as a missile defense system to destroy tactical ballistic missiles (TBMs) while in boost phase. The aircraft was designated YAL-1A in 2004 by the U.S. Department of Defense.

The YAL-1 with a low-power laser was test-fired in flight at an airborne target in 2007. A high- energy laser was used to intercept a test target in January 2010, and the following month, successfully destroyed two test missiles. Funding for the program was cut in 2010 and the program was canceled in December 2011. It made its final flight on February 14, 2012, to Davis–Monthan Air Force Base in Tucson, Arizona, to be kept in storage at the “Boneyard” by the 309th Aerospace Maintenance and Regeneration Group. It was ultimately scrapped in September 2014 after all usable parts were removed.

Development

Origins

The Airborne Laser Laboratory was a less-powerful prototype installed in a Boeing NKC-135A. It shot down several missiles in tests conducted in the 1980s.

The Airborne Laser program was initiated by the US Air Force in 1996 with the awarding of a product definition risk reduction contract to Boeing’s ABL team. In 2001, the program was transferred to the MDA and converted to an acquisition program.

The development of the system was being accomplished by a team of contractors. Boeing Defense, Space & Security provides the aircraft, the management team, and the systems integration processes. Northrop Grumman was supplying the COIL, and Lockheed Martin was supplying the nose turret and the fire control system.

In 2001, a retired Air India 747-200 was acquired by the Air Force and trucked without its wings from the Mojave Airport to Edwards Air Force Base where the airframe was incorporated into the System Integration Laboratory (SIL) building at Edwards’ Birk Flight Test Center, to be used to fit check and test the various components. The SIL was built primarily to test the COIL at a simulated operational altitude, and during that phase of the program, the laser was operated over 50 times, achieving lasing durations representative of actual operational engagements. These tests fully qualified the system so that it could be integrated into the actual aircraft. Following the completion of the tests, the laboratory was dismantled, and the 747-200 fuselage was removed.

Boeing completed initial modifications to a new 747-400F off the production line in 2002, culminating in its first flight on July 18, 2002, from Boeing’s Wichita, Kansas, facility. Ground testing of the COIL resulted in its successful firing in 2004. The YAL-1 was assigned to the 417th Flight Test Squadron Airborne Laser Combined Test Force at Edwards AFB.

Testing

Besides the COIL, the system also included two kilowatt-class Target Illuminator Lasers for target tracking. On March 15, 2007, the YAL-1 successfully fired this laser in flight, hitting its target. The target was an NC-135E Big Crow test aircraft that has been specially modified with a “signboard” target on its fuselage. The test validated the system’s ability to track an airborne target and measure and compensate for atmospheric distortion.

The next phase in the test program involved the “surrogate high-energy laser” (SHEL), a stand-in for the COIL, and demonstrated the transition from target illumination to simulated weapons firing. The COIL system was installed in the aircraft and was undergoing ground testing by July 2008.

In an April 6, 2009 press conference, the Secretary of Defense Robert Gates recommended the cancellation of the planned second ABL aircraft and said that the program should return to a Research and Development effort. “The ABL program has significant affordability and technology problems and the program’s proposed operational role is highly questionable,” Gates said in making the recommendation.

There was a test launch off the California coast on June 6, 2009. At that time it was anticipated that the new Airborne Laser Aircraft could be ready for operation by 2013 after a successful test. On August 13, 2009, the first in-flight test of the YAL-1 culminated with a successful firing of the SHEL at an instrumented test missile.

The U.S. Missile Defense Agency (MDA) on August 18, 2009 successfully fired the high-energy laser aboard the aircraft in flight for the first time. The YAL-1 took off from Edwards Air Force Base and fired its high-energy laser while flying over the California High Desert. The laser was fired into an onboard calorimeter, which captured the beam and measured its power.

In January 2010, the high-energy laser was used in-flight to intercept, although not destroy, a test Missile Alternative Range Target Instrument (MARTI) in the boost phase of flight. On February 11, 2010, in a test at Point Mugu Naval Air Warfare Center-Weapons Division Sea Range off the central California coast, the system successfully destroyed a liquid-fuel boosting ballistic missile. Less than an hour after that first missile had been destroyed, a second missile—a solid-fuel design—had, as announced by the MDA, been “successfully engaged”, but not destroyed, and that all test criteria had been met. The MDA announcement also noted that ABL had destroyed an identical solid-fuel missile in flight eight days earlier. This test was the first time that a directed-energy system destroyed a ballistic missile in any phase of flight. It was later reported that the first February 11 engagement required 50% less dwell time than expected to destroy the missile, the second engagement on the solid-fuel missile, less than an hour later, had to be cut short before it could be destroyed because of a “beam misalignment” problem.

Source: Wikipedia