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Completed Program Milestones
|
| May
2002 |
ABL
aircraft modification work completed in Wichita. News
Release |
| March
2002 |
Team
ABL completes testing of high-power laser. News
Release |
| February
2002 |
Surrogate
nose turret attached to ABL aircraft. News
Release |
| December
2001 |
Testing
of Laser Module 1 under way in Capistrano, Calif. |
| September
2001 |
Lockheed
Martin delivers surrogate turret to Boeing for installation on
aircraft. Turret is installed on ABL flying platform in Wichita
on Oct. 22. |
| July
2001 |
Team
Airborne Laser delivers infrared sensors for lab testing and aircraft
integration. The revolutionary Airborne Laser (ABL) missile
defense system's infrared sensors - designed to be the system's
initial detector of a theater ballistic missile in its boost phase
- have been delivered for installation on the first ABL 747-400
Freighter aircraft platform. News
Release |
| March
2001 |
New
solid-state laser developed for Airborne Laser program. Raytheon,
a key subcontractor to team member Lockheed Martin, conducts a
"first light" test of the Track Illuminator Laser (TILL)
one week ahead of schedule at its High Energy Laser Center in
El Segundo, Calif. The TILL, one of four critical lasers
to the Airborne Laser Program, is the first solid-state laser
to achieve this milestone. News
Release |
| February
2001 |
New
Silicon Valley facility will test defensive system designed to
'zap' theater ballistic missiles at speed of light. A ribbon-cutting
ceremony is held to mark the start of operations at the 16,000-square-foot
Beam Control/Fire Control Integration and Test Facility at Lockheed
Martin Space Systems in Sunnyvale.
News
Release |
| September
2000 |
747-400
Freighter modifications pass halfway point. The biggest military
modification program ever at Boeing facilities in Wichita, Kan.,
has passed the halfway mark and progress continues on schedule.
News
Release |
| August
2000 |
New
titanium belly skins delivered to aircraft. Two large "belly
skins' for the first flying ABL platform are delivered to the
Boeing Maintenance and Modification Center in Wichita. This is
the first large application of formed titanium structure on a
commercial derivative aircraft for the military. The two complex
contour panels form the largest single, one-piece titanium aircraft
component in the work. The titanium belly skin is located on the
underside of the aircraft, at the mid-section under which the
ABL chemicals are situated. News
Release |
| June
2000 |
Team
ABL continues making progress with delivery of two Airborne Laser
steering mirrors. A team of engineers has delivered two prototype,
fast-steering mirrors for the Airborne Laser (ABL) theater-ballistic-missile
defense system to Lockheed Martin Space Systems in Sunnyvale,
Calif. News
Release |
| April
2000 |
Airborne
Laser program team members to 'celebrate' Critical Design Review
this week. Three and one-half years following the start of
design work on a revolutionary airborne theater ballistic-missile
defense system, Team ABL successfully completes final critical
review of its robust design for the Airborne Laser system. News
Release |
| April
2000 |
Team
ABL begins fabrication of Airborne Laser turret. Lockheed
Martin Space Systems, a member of Team Airborne Laser (ABL), has
begun fabrication of the revolutionary, high-energy laser weapon
system's turret assembly at its Sunnyvale, Calif., facility. News
Release |
| January
2000 |
First
Airborne Laser aircraft arrives at Boeing Wichita for start of
major
modification work. The first Airborne Laser (ABL) flying platform
- a 747-400 Freighter - fly into Boeing facilities in Wichita,
Kan., and immediately begin 20 months of major modification work
by Team ABL. News
Release |
|
April 1999 |
First delivery of flight hardware for ABL beam control /fire
control system. Corning Glass delivers the primary optical
mirror for the ABL beam control/fire control system to Contraves
Breshears Systems, L.P, a key contractor supporting Team ABL.
The mirror, which is used to focus ABL's high-energy laser beam
on its target, will be polished to the optical quality required
to meet ABL mission requirements.
News Release |
February 1999 |
Team ABL validates advanced processing architecture.
Lockheed Martin demonstrates that high-speed commercial computers
can provide the performance required to manage information that
will control critical functions of the weapon system's beam control/fire
control segment. |
February 1999 |
Team ABL confirms design of ABL with wind tunnel testing
Boeing successfully tests and validates the design of the modified
747-400F freighter aircraft through a series of high and low-speed
wind tunnel tests. News
Release |
December 1998 |
Airborne Laser Program wins 100-percent award fee
Team ABL receives an award fee ($6.1 million) amounting to 100 percent
of the available funds for achievements on the ABL program from
April 1 through Sept 30, 1998.
News Release |
November 1998 |
Airborne Laser named in Popular Science "Best of What's New"
The ABL program was one of 100 products and technologies selected
for the magazine's annual "Best of What's New" listing. The magazine
cited Team ABL for proving the viability of ABL during tests in
1998. News
Release |
September 1998 |
Team ABL achieves 110-percent of design output power specification
for first ABL laser module
The Northrop Grumman-designed flight-weighted laser module (FLM), a prototype
"building block" for the ABL system's 747-400F-mounted high-energy
laser, produced 110 percent of its design output power, which exceeded
by a significant margin the power requirements of the ABL mission.
News
Release |
June 1998 |
Team ABL achieves "first light" with flight-weighted laser module
(FLM)
Team ABL makes history by operating, for the first time, a high-energy
laser module produced for the Airborne Laser (ABL) program.
News
Release |
June 1998 |
First ABL Flight Hardware in Production
The first major step in the production of a turret window for the
Airborne Laser program is completed when members of Team ABL accepted
delivery of the largest piece of optical quality glass ever manufactured.
|
May 1998 |
Team ABL passes preliminary design review
Team ABL was cleared by the U.S. Air Force to proceed with work
on the YAL-1A Airborne Laser following completion of the week-long
preliminary design review. The PDR is the first of several design
milestones before the ABL attempts to shoot down a ballistic missile
in 2003. |
April 1998 |
Laser beam scaled demonstrator produces performance needed for
Airborne Laser
Lockheed Martin used a scaled laser beam control demonstrator to
prove that the ABL beam control system will be able to accurately
point and focus a laser at a hostile missile hundreds of miles away
despite aircraft platform jitter, atmospheric turbulence, and fast
engagement timelines.
News Release |
January 1998 |
Boeing completes key wind tunnel tests
Those tests confirm the design of two components critical to the
program: the nose turret that aims the laser, and the laser exhaust
system. News
Release |
January 1998 |
Air Force places order for the first 747 aircraft for the ABL
program
The aircraft will be modified and used for the first missile shoot-down
in 2002. News
Release
|
September 1997 |
Team ABL demonstrates that the laser's most critical component
can meet its ABL mission requirement
Team ABL has demonstrated that the laser's most critical component,
the singlet oxygen generator (SOG), can meet its ABL mission requirement.
The SOG is the hardware that produces the excited oxygen "fuel"
for the Northrop Grumman-designed chemical oxygen iodine laser (COIL).
|
March 1997 |
Team ABL approved to begin manufacturing first laser hardware
for ABL system.
Less than four months after beginning $1.1 billion PDRR contract,
Northrop Grumman receives the go-ahead to begin fabricating the program's first
laser hardware. News
Release |
November 1996 |
Boeing, Lockheed Martin, Northrop Grumman Win Airborne Laser Contract
The U.S. Air Force awards Team ABL -- Boeing, Lockheed Martin, and
Northrop Grumman -- a $1.1 billion contract to develop and flight test the first
Airborne Laser (ABL) weapon system.
News Release |
August 1996 |
Northrop Grumman Laser Module Meets Airborne Laser Performance Requirements
Northrop Grumman demonstrates that its Baseline Demonstration Laser (BDL-2) can
meet performance requirements needed for Team ABL to build megawatt
class laser that meets ABL mission requirements. |
July 1996 |
Team ABL submits proposal for program development and risk reduction
(PDRR) phase of ABL program.
News Release |
May 1996 |
U.S. Air Force releases Airborne Laser demonstration/validation
Request for Proposal (RFP). |
March 5-8, 1996 |
Team ABL concept design review undertaken with U.S. Air Force; Final
data package completed within 30 days. |
February 1996 |
Lockheed Martin beam control system brassboard is operational.
|
October 1995 - Present |
Lockheed Martin performs beam control tracking, pointing and adaptive
optics compensation demonstrations. |
September 1995 |
Team ABL undertakes operational concept review in Seattle.
|
July 1995 |
Northrop Grumman TRACE Facility demonstrates 10 kW laser power goal. |
May - October 1995 |
Boeing performs wind tunnel testing of turret designs. |
April 1995 |
Northrop Grumman begins construction of the Baseline Demonstration Laser-2 (BDL-2.
|
March - Nov. 1995 |
Boeing conducts a series of "Flex Blue" tests to determine vibration
environment for Airborne Laser. |
April 1994 |
Team ABL is one of two competing teams selected for concept design
study ($21 million, 33-month contract. |
September 1992 |
Boeing and Lockheed receive separate contracts to assess how well
existing large airplanes -- the 707, 747, 767 and B-52 -- would
perform while carrying a high-energy laser and beam control system.
Both teams separately reach the same conclusion and recommend a
747 platform to the Air Force as the best option for the mission.
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