The American Jet Age

Exhibit 19 · Lockheed Martin / Boeing

F-22 Raptor

Stealth, supercruise, and sensor fusion — the fighter from a war that ended before it arrived.

F-22 Raptor
An F-22A Raptor over the Pacific Ocean. U.S. Air Force photo by Master Sgt. Kevin J. Gruenwald (public domain), via Wikimedia Commons. [source]
Role
Air dominance stealth fighter
First flight
September 29, 1990 (YF-22); September 7, 1997 (F-22 EMD)
Introduced
December 2005
Retired
In service; production ended 2011 at 187 operational aircraft
Number built
195 (8 test + 187 operational)
Development time
ATF concept 1981 → YF-22/YF-23 flyoff 1990–91 → IOC 2005: a 24-year gestation

History

The Advanced Tactical Fighter program of 1981 asked for the impossible combination: F-15 agility, F-117 stealth, and sustained supersonic cruise without afterburner. The 1990–91 flyoff pitted Lockheed's YF-22 against Northrop's arguably faster, stealthier YF-23; Lockheed's more conventional agility (and, many believed, more convincing program management) won.

Then the Soviet Union — the aircraft's entire justification — dissolved months later. Planned buys collapsed from 750 to 381 to 187, and production ended in 2011 with the line's tooling packed into desert storage. Congress banned export outright (the Obey Amendment), making the Raptor the only modern American fighter never offered even to allies.

In service it has been less a combatant than an argument-ender: in exercises, Raptor pilots rack up double-digit kill ratios against anything flying, and its first air-to-air kills were, absurdly, a Chinese spy balloon and cruise-missile-class drones in 2023–24. Its avionics architecture, stealth maintenance lessons, and pilot cadre seeded the F-35 and now the sixth-generation NGAD program.

Why it mattered

The F-22 closed the arc this museum traces: the swept wing (1947), Mach 2 (1954), stealth (1981), and computational flight control (1974) all converge in one airframe that does everything its ancestors did separately — and it is simultaneously a monument to Cold War momentum, arriving perfected for a conflict that no longer existed. Fewer were built than B-58s.

Engineering breakdown

Airframe & structure

Stealth shaping matured past the B-2's curves into a supersonic form: planform-aligned edges, serpentine inlets hiding the fan faces, internal weapons bays keeping the combat configuration clean, and radar-absorbent edge treatments over a structure that is roughly 39% titanium and 24% composites. Thrust-vectoring nozzles pitch ±20°, integrated into the flight controls.

Materials

Titanium hot structure and load paths, bismaleimide and epoxy composites over much of the surface, and frequency-tuned RAM — with the operational discovery that stealth coatings are a maintenance discipline as demanding as any engine: low-observable restoration became its own Air Force specialty.

Aerodynamics

Supercruise — Mach 1.5+ without afterburner — changes air combat's energy arithmetic: the Raptor enters every merge from above and faster, and leaves at will. Thrust vectoring plus relaxed stability gives controllable flight past 60° angle of attack. Sensor fusion (radar, ESM, datalinks synthesized into one tactical picture) proved as decisive as any aerodynamic number; every exercise debrief says the Raptor's kills begin with seeing first.

Key innovations

  • First operational supercruising fighter (Mach 1.5+ dry)
  • First stealth aircraft with fighter agility — planform-aligned supersonic shaping
  • Two-dimensional thrust-vectoring nozzles integrated with fly-by-wire
  • Sensor fusion as the design's actual center: the pilot commands outcomes, the machine assembles the picture
  • AN/APG-77 AESA — the first operational active electronically scanned array on a fighter

Propulsion

2× Pratt & Whitney F119-PW-100

Pratt & Whitney · Afterburning twin-spool turbofan with 2D thrust-vectoring nozzles · ~35,000 lbf class each

The F119 is what a half-century of the American engine lead compounds into: single-crystal superalloy turbine blades, integrally-bladed powder-metallurgy rotors, and a low-bypass cycle hot and strong enough to push a 35-ton stealth airframe past Mach 1.5 dry — sustained, mission after mission. The flat two-dimensional nozzles vector thrust for pitch authority and flatten the exhaust plume for infrared suppression, at a weight cost only this engine's margin could absorb. Its direct derivative, the F135, powers every F-35.

Specifications

Length
62 ft 1 in
Wingspan
44 ft 6 in
Supercruise
Mach 1.5+ without afterburner
Max speed
Mach 2.25
Thrust/weight
~1.08 loaded
Weapons
Internal: 6× AIM-120 + 2× AIM-9 + 20mm cannon

The people

Sherman MullinLockheed ATF program general manager. Led the Skunk Works-rooted team through the flyoff win — the institutional heir of the Johnson and Rich programs, applied to a competition Lockheed could not afford to lose.
Dick AbramsLockheed ATF chief engineer. Balanced the three-way fight among stealth, supersonics, and agility that defines the F-22's shape.
Paul MetzF-22 chief test pilot. Flew the production F-22's first flight in 1997 — having flown the rival YF-23's first flight in 1990: the only pilot to fly both sides of the flyoff first.

Lore

The losing YF-23 — faster and stealthier by most accounts — remains aviation's favorite what-if; both prototypes sit in museums, still looking like the future.

F-22 production tooling was crated into climate-controlled storage against a restart that studies priced at prohibitive and Congress never funded.

The Raptor's first confirmed kill, after 17 years in service, was a balloon at 58,000 ft over South Carolina — engaged with a Sidewinder from history's most expensive skeet position.

Facts for the placard

Sources & further reading

  1. U.S. Air Force — F-22 Raptor official fact sheet
  2. Lockheed Martin — F-22 Raptor
  3. National Museum of the USAF — Lockheed Martin F-22A fact sheet
  4. Photograph: An F-22A Raptor over the Pacific Ocean. U.S. Air Force photo by Master Sgt. Kevin J. Gruenwald (public domain), via Wikimedia Commons.