The S-3 is a carrier-based, subsonic, all-weather, long-range, multi-mission aircraft. It operates primarily with carrier battle groups in anti-submarine warfare roles. It carries automated weapon systems and is capable of extended missions with in-flight refueling.
The Viking’s primary flight controls are fully powered and are integrated with the automatic flight control system to relieve the pilot of routine anti submarine warfare manoeuvring. Primary flight controls are servo operated by dual hydraulic systems the loss of either hydraulic system results in the loss of half the available hinge moment. Reversion to manual control is automatic if both hydraulics are lost. In normal powered operation series inputs to the elevator and rudder servos compensate for pitching moments and provide turn co ordination and yaw damping. During autopilot operation parallel inputs to the power servos permit the pilot to, anticipate automatic manoeuvres. The roll axis is controlled by short-span ailerons aug¬mented by differential spoilers mounted on the upper and lower surfaces of each wing. The servo actuators have artificial feel built in to minimise variations in manoeuvring forces throughout the flight envelope. Ailerons and spoilers act together for rolling, with the spoilers acting alone as airbrakes when required. During emergency manual opera¬tion when there is no hydraulic power the spoilers are inhibited and the control column operates only the ailerons. The pitch axis is controlled by a hydraulically powered elevator servo; trim is via an electrically powered actuator. The elevator servo can be operated in normal powered, series or parallel modes. In the emergency manual mode, and in the normal powered mode, the servo is controlled by the pilot. In the series mode during manual approach with the approach power compensator on the servo is under the joint control of the pilot and the automatic flight control system. Rudder control allows an engine failure to be coped with at low speed or following asymmetric stores release. The rudder servo, like that for the elevator, can operate: in normal power, series, parallel or emergency manual modes. During the fin folding sequence rudder pedal input to the rudder servo is disconnected to enable the pilot to continue steering the aircraft on the ground using the rudder pedals.
The first S 3A Viking was rolled out at Lockheed’s Burbank, California factory on November 8 1971 and was first flown on 21 January 1972. The S-3A Viking replaced the piston-engined Grumman S-2 Tracker and entered fleet service in 1974. The last production S-3A was delivered in August 1978.
Used exclusively by the US Navy (firstly VS-41 in February 1974), a total of 187 were built before production ended in 1978, these being powered by two 9,275 lb thrust General Electric TF34 GE 2 turbofan engines.
Lockheed received an initial contract in April 1986 to supply 22 production conversion kits to modify S-3As to upgraded S-3B standard. Two S-3As were modified by Lockheed in 1984/85 to serve as S-3B prototypes, the first flying on 13 September 1984. The S-3B incorporates increased acoustic processing, expanded ESM coverage, improved radar processing, a new sonobuoy reference system, and Harpoon ASM capability. The S-3B version can be fitted with buddy stores, external fuel tanks that refuel other aircraft, to act as an airborne tanker.
Sixteen S-3As were converted to ES-3A Shadows for carrier-based electronic reconnaissance (ELINT) duties.
The Lockheed US 3A Viking car¬rier on board delivery development aircraft, a version of the S 3A Viking, was flown for the first time on 2 July1976. Four US-3As are used for COD. A few units were also converted for utility and limited cargo duty, known as the US-3B, all of which were retired by 1998.
Since the submarine threat has been perceived as reduced Vikings have had their antisubmarine warfare equipment removed and are now used primarily for sea and ground attack, sea surface search, over the horizon targeting, and aircraft refueling. As a result, crews are now usually limited to two people, but three people crews are not unusual with certain missions. Navy plans called for the retirement of all Vikings by 2009.
S-3B Viking
On May 1, 2003, US President George W. Bush rode in the co-pilot seat of a Viking that landed on the aircraft carrier USS Abraham Lincoln, where he delivered his “Mission Accomplished” speech announcing the end of major combat in the 2003 invasion of Iraq. That Navy flight is the only one to use the callsign “Navy One”.
S-3A Engines: 2 x General Electric TF34-GE-2 turbofan, 9275 lb (4207 kgp) thrust. Wing span: 68 ft 8 in (20.93 m). Length: 53 ft 4 in (16.26 m). Height: 22 ft 9 in (6.93 m). Wing area: 55.6 sq.m / 598.47 sq ft Max take-off weight: 19280 kg / 42505 lb Empty weight: 12070 kg / 26610 lb Max. speed: 815 km/h / 506 mph Cruise speed: 650 km/h / 404 mph Ceiling: 11000 m / 36100 ft Range w/max.fuel: 5700 km / 3542 miles Crew: 4
S-3 Viking Engines: 2 x General Electric TF-34-GE-400B turbofan engines rated at 9,275 lb thrust each Length: 53 feet, 4 in Wingspan: 68 ft, 8 in Height: 22 feet, 9 in Weights Empty weight: 26,650 lb Maximum takeoff weight: 52,539 lb Speed: 518 mph Ceiling: 40,000 ft Range: 2,645 mi Armament: Up to 3,958 lb Crew: Four Unit Cost: US$27 million
When in August 1957 the US Navy needed an advanced ASW/maritime patrol aircraft, it was suggested that a variant of a type then in production would be most suitable for this requirement. Lockheed proposed a developed version of the L-188 Electra, gaining an initial research and development contract on 8 May 1958.
Lockheed’s Model 186, which retained the wings, tall unit, power plant and other components of the commercial Electra, as well as much of the fuselage structure which was, however, shortened and provided with a 6.9m3 weapons bay, and there are 10 under-wing pylons for a variety of stores. The first Lockheed P 3 Orion, NP 3A BuNo 148276, was converted from the third L.188 Electra airliner by removing 7ft (2.1m) from the fuselage, flying from Burbank in August 1958. The air¬craft saw extensive use as an aero-dynamics test bed. It was eventually transferred to NASA.
Pressurised for the higher altitudes, the aircraft can operate from sea level, (usually 200ft minimum) up to 30,000 ft with a speed range from 140 to 405 knots. The engines are four x 4600 hp Allison turbo props with Hamilton Standard propellers. Maximum all up weight at take off is 14,500 lbs (6577 kg) higher than the original airliner at 127,500 lbs (57,800 kg) including a maximum of 60,000 lbs (34,000 lites) of fuel.
This was followed by the Lockheed YP3V-1 operational prototype, later named Orion, which first flew on 25 November 1959. The first production P3V-1 was flown on 15 April 1961, with initial deliveries being made to US Navy Patrol Squadrons VP-8 and VP-44 on 13 August 1962, by which time the type had been redesignated the P-3.
In August 1963 a US Navy crew flew a P-3A nonstop from California to Japan, 5280 miles, in 14 hr 30 min. After several demonstration flights it returned nonstop in 14 hr 5 min.
One hundred and fifty seven P-3As and 144 P-3Bs followed and production switched to the origi¬nal P-3C in 1968. P-3C is powered by 4,910 ehp (3 661 kW) Allison T56-A-14 turboprops. Progressive development of the P-3C’s systems through Update I and II has led to the production P-3C Update III model. The first P-3C Update III, with IBM Proteus acoustic processors, was delivered in May 1984. Update IV will improve the P-3’s ASW capability by the use of new acoustic processing systems and Litton AN/ALR-77 tactical ESM equipment. The P-3G would also feature Allison 501 turboprops in place of the T56-A-14s of the preceding model.
By 1994, production in Georgia was with wings built by Daewoo Aerospace in Korea and tail surfaces by Jetstream Aviation at Prestwick in Scotland, and remaining in production in the U.S.A. until 1995.
The first Kawasaki-assembled P-3C Orion was accepted by the Maritime Self-Defence Force at Gifu, Japan, on 27 May 1982. Flown for the first time on 17 March 1982, this aircraft was built from knocked-down components, and Kawwasaki was scheduled to deliver four more by March 1983. All were to be assigned to the 4th Air Group at Atsugi AB, near Tokyo.
Following the assembly in Japan of four P-3C aircraft from Lockheed-built components, Kawasaki produced the Lockheed Martin P-3C Orion for the JMSDF; 101st and final aircraft delivered in 1997, when four EP-3/UP-3D electronic intelligence/training variants remained to be delivered up to the year 2000.
Other export P-3s feature various equipment changes: Australian P-3Cs used Marconi Avionics AQS-901 acoustic processing; the 21 Canadian CP-140 / CP-140A Auroras have S-3 Viking avionics; and New Zealand’s P-3Bs are fitted with Boeing’s UDACS display and control consoles. The US Customs Service became the first customer for Lockheed’s P-3 (AEW&C) airborne early warning aircraft in May 1987. These aircraft will have a reduced mission system suitable for their task, while the full AEW&C aircraft would have a General Electric AN/APS-138 radar and APA-171 rotodome above the fuselage, together with a M1L1553A communications and data handling system. During 1984 Lockheed converted an ex-RAAF P-3B to serve as the AEW&C prototype, featuring the dorsal “rotodome”. Designated EP-3Es and converted from P-3As, twelve versions serve with the US Navy to provide electronic surveillance. The EP-3s are equipped with APS-120 radar plus extensive jamming, detection and analysis equipment.
The significantly upgraded Australian Orions, designated AP-3C, were introduced into service in 2002 and are fitted with a variety of sensors, including digital multi-mode radar, electronic support measures, electro-optics detectors (infra-red and visual), magnetic anomaly detectors, identification friend or foe systems, and acoustic detectors.
The major changes since the Orion entered service have been in avionics equipment and capability, and more than 640 have been built to 1989, with the type then continuing in production (at Marietta, Georgia) until 1995/56 for South Korea, who ordered eight P-3C Update Ills in December 1990. Other Orions were in service in Iran, the Netherlands, New Zealand, Norway, Pakistan, Portugal, Spain and NASA and NOAA.
P-3 LSRS
The last of 18 upgraded AP-3C Orions was formally handed over to the RAAF in 2005. The first upgrade was performed by L-3 Communications in the USA and the remainder by L-3 and then Tenix in Australia. The programme was completed four years behind schedule.
L-3 Communications re-delivered the first of six P-3Ks to the RNZAF with sensor, communications and navigation systems upgrades in July 2005.
P3V-1 Orion Engines: 4 x Allison T56-A-10W, 4500 hp Wing span: 99 ft 8 in Length: 116 ft 8 in Height: 33 ft 8 in Wing area: 1300 sq.ft MTOW: 125,500 lb Max speed: 460 mph at 20,000 ft Service ceiling: 27,000 ft Endurnce -2 engines: 8 hr at 220 mph at 1000 ft
P-3B Orion Engines: 4 x Allison, 4910 shp. Wing span: 99 ft 8 in (30.37 m). Length: 116 ft 10 in (35.61 m). Height: 33 ft 8.5 in (10.29 m). Max TO wt: 134,000 lb (60,780 kg). Max level speed: 476 mph ( 765 kph).
P-3C Orion Engine: 2 x Allison T56-A-14 turboprop, 4910 shp / 3661kW. Installed thrust: 14,640 kW. Wingspan: 30.38 m / 99 ft 8 in Length: 35.61 m / 116 ft 10 in Height: 10.27 m / 33 ft 8 in Wing area: 120.77 sq.m / 1299.96 sq ft Empty wt: 27,890 kg / 61492 lb MTOW: 127,500 lb (57834 kg) Heavywt model MTOW: 135,000 lb (61,236 kg). Warload: 9070 kg. Max speed: 476 mph @ 15,000 ft. Cruise: 340 kt. Initial ROC: 880 m / min. Ceiling: 8600 m. T/O run: 1290 m. Ldg run: 845 m. Fuel internal: 34,830 lt. Max range: 4500nm. Endurance: 3 hr on station. Crew: 10 Air refuel: No. Armament: 9000kg
P 3K Engines: 4x Allison T56. Length: 36m. Wingspan: 30m. Height: 10m. Weight: 57,800kgs. Max range: 7100kms (3850 NM). Cruise speed: 260 750 km/hr. Endurance: 15hrs with 2 engines shut down to conserve fuel. Cruise speed: 195 205 km/hr. Equipment: Rescue winch 270kg max load, nightsun search light, nightvision goggles. Armament: 2 x M60D 7.62 machine guns. Crew: 2 pilots, 2 flight engineers, 2 navigators, 1 air electronics officer, 3 air electronics ops, 1 air ordnanceman Seating: up to 20.
Lockheed Martin AP-3C Orion Engine: Four Allison T56-A-14 (4600 shaft horsepower) Length: 35.6m Height: 10.44m Wingspan: 30.8m Maximum weight: 61,200Kg Maximum speed: 750 km/h (405 knots), Cruise speed: 650 km/h (350 kts) at 26,000 feet Loiter speed:370 km/h (200 kts) Endurance: 15 hours Crew: 13, two pilots (captain and co-pilot), two flight engineers, tactical co-ordinator, navigator/communication officer, sensor employment manager, six airborne electronic analysts.
Lockheed P 3 Sentinel Engine: 4 x T 56 A14, 3314 shp Length: 116.798 ft / 35.6 m Height: 33.793 ft / 10.3 m Wingspan: 99.738 ft / 30.4 m Wing area: 1300.291 sq.ft / 120.8 sq.m Max take off weight: 142024.1 lb / 64410.0 kg Weight empty: 61497.5 lb / 27890.0 kg Max. payload weight: 80526.6 lb / 36520.0 kg Max. speed: 410 kt / 760 km/h Landing speed: 112 kt / 208 km/h Cruising speed: 328 kt / 608 km/h Initial climb rate: 1968.5 ft/min / 10.0 m/s Service ceiling: 28297 ft / 8625 m Wing loading: 109.27 lb/sq.ft / 533.0 kg/sq.m Range: 2071 nm / 3835 km Crew: 10
The first US Navy contract for two XP2V-1 Neptune maritime-reconnaissance bombers was placed in April 1944.
The P2V / P-2 has mid-set unswept wing, unswept tail surfaces, and conventional control surfaces. The ailerons drop 10 degrees when the Lockheed-Fowler flaps are fully extended. The tricycle undercarriage has a single wheel on each unit with the nosewheel retracting rearward and mains forward into the engine nacelles.
The first prototype flew on 17 May 1945. From then Lockheed received contracts for the P2V-1 to P2V-7 versions which were subsequently redesignated in the P-2 category.
Last versions in operational service were the P-2E (formerly P2V-5) which introduced the glazed nose, MAD tailboom, Julie/Jezebel ASW systems, etc, and later fitted with auxiliary underwing turbojets; SP-2E, as for the P-2E but with modernised equipment; P-2H, the first version to introduce auxiliary underwing turbojets and incorporating equipment and detail changes; and the SP-2H, as for the P-2H but with modernised equipment. These served with the Argentinian Navy (P-2H), Australian Air Force (SP-2H), Brazilian Air Force (P-2E), French Navy (P-2H), JMSDF (P-2H, and Kawasaki P-2J), Netherlands Navy (SP-2H), Portuguese Air Force (SP-2E) and the US Navy (SP-2H).
The USA supplied Britain with P-2 Neptune under the Mutual Defence Aid Pact. British Neptunes served in four squadrons from 1952 to 1957.
Truculent Turtle
In 1946 US Navy Neptune ‘Truculent Turtle’ flew non-stop 11,229 miles from Perth, Australia, to Columbus, Ohio.
The P 2H Neptune was a variant used by the Maritime Patrol Command of the Canadian Armed Forces.
On 6 November 1951 a Lockheed P2V Neptune from VP-6 Squadron of the US Navy was shot down over the Sea of Japan near the Soviet naval base at Vladivostok. The Neptune, with a crew of 10 on board, was to have reconnoitred the weather near the Siberian coast. On 18 January 1953 an American P2V-5 Neptune maritime reconnaissance aircraft was shot down by Chinese MiG fighters near (over?) the coastal town of Swatou, opposite Taiwan. All thirteen crew were killed. The number of occupants appears to be a little on the high side for a normal patrol flight. In those days it was not unusual for American aircraft to drop secret agents over the People’s Republic of China. Such ‘cover-flights’ were usually flown from Nationalist Chinese Taiwan. On 4 September 1954 the third Neptune went down. A P2V-5 of the American Naval Squadron VF-19 was shot down by two Soviet MiG-15 over the Sea of Japan, about 40 miles from the Siberian coast. The Neptune, originating from Atsugi airbase in Japan, forced-landed in the sea after the attack. Nine of the ten crew escaped and were rescued later. On 22 June 1955 Soviet jets attached an American P2V-5 Neptune from Patrol Squadron VP-9 over the Bering Strait. With the starboard engine on fire the Neptune had difficulty in fore-landing near Gambell on St. Lawrence Island, barely 60 miles / 100 km from the Soviet coast but United Stated territory. Three crew members were injured during the Soviet attack. Washington demanded compensation of $724,947 but later accepted a Soviet offer of half that.
A small number of P2V 2 and P2V 7 Neptunes were in service with ski landing gear for operations in the Antarctic.
P2V-7 Neptune
Kawasaki developed from the Lockheed P 2H Neptune a new ASW and maritime patrol bomber which has the designation P 2J. First flown in July 1966, the P-2J ¬differed from the P-2H in having a lengthened fuselage, and 2,850 ehp General Electric T64-1HI-10 turboprops replacing original piston engines, plus underwing 3,085 lb st (1400 kgp) J3-1H1-7C turbojets.
Entering service with the JMSDF in 1969, the last of`82 production aircraft was delivered in 1979. Sixteen P2V-7 were supplied from the USA before Japanese production began. Armament of the P 2J comprises up to 8,000 lb (3,628 kg) of bombs, depth charges, or tor¬pedoes carried internally, and 16 5 inch rockets underwing.
An approach in Vietnam was the monitoring of electronic sensors on the ground, the signals being received by the AP 2E Neptune.
Between 1945 and 1962, 1195 were manufactured.
The CIA purchased seven Lockheed P2V-7U Neptunes for the USAF for clandestine missions along the Iron Curtain and beyond. The US Navy had not wished to be involved but the Navy bought the aircraft and the USAF operated them, with USAF markings. The USAF stated at the time they were purchased as RB-69 radio trainers.
RB-69
The RB-69 were converted by Lockheed into multi-purpose spying aircraft. They were able to perform low-level photographic reconnaissance, and with advanced ELINT equipment, electronic surveillance flights. Agents could be dropped through a panel in the belly, and tens of thousands of pamphlets could be dropped. Flights were planned from Eglin Air Base in Florida. The USAF Neptunes were observed from 1957 in Taiwan, in Japan, and on Wiesbaden airbase in West Germany. From Wiesbaden the blue-black RB-69 flew with a number of additional bulges and with two pencil-shaped antennas alongside the fuselage. The aircraft carried the first sideways-looking radar system and operated until modified to ordinary SP-2H Neptunes for anti-submarine warfare.
Hawkins & Powers enveloped civil conversions of C-130 and P2V-7 under TC A19NM, A30NM, and A34NM in the Restricted category as borate bombers for forest fire control.
P-2 Neptune Engines: 2 x Wright R-3350-32W, 2575kW Max take-off weight: 36191 kg / 79788 lb Empty weight: 22592 kg / 49807 lb Wingspan: 31.7 m / 104 ft 0 in Length: 27.9 m / 91 ft 6 in Height: 8.9 m / 29 ft 2 in Wing area: 92.9 sq.m / 999.97 sq ft Max. speed: 648 km/h / 403 mph Ceiling: 6800 m / 22300 ft Range w/max.fuel: 5930 km / 3685 miles Armament: 2 x 12.7mm machine-guns, bombs, missiles, torpedos Crew: 7
P2V-5 Neptune Engines: 2 x Wright, 3250 hp. Wing span: 102 ft 0 in (31.08 m). Length: 81 ft 7 in (24.87m). Height: 28 ft 1 in (8.56 m). Max TO wt: 76,152 lb (34,542 kg). Max level speed: 341 mph ( 549 kph).
P2V Neptune Length: 91.667 ft / 27.94 m Height: 29.331 ft / 8.94 m Wingspan: 103.904 ft / 31.67 m Max take off weight: 80085.6 lb / 36320.0 kg Max. speed: 309 kts / 573 km/h Service ceiling: 22014 ft / 6710 m Range: 3202 nm / 5930 km Engine: 2 x Wright R-3350-32W, 3452 hp Crew: 7 Armament: 3630kg
P2V-7 Neptune Engines: 2 x Wright R3350-30W Turbo-Cyclone 3,250 hp, 2 x Westinghouse J34 turbojets, 3600 lb Wingspan: 103 ft. 10 in Length: 91 ft. 8 in. Height: 29 ft 4 in Wing area: 1000 sq.ft Empty weight: 49,808 lb Loaded weight: 72,000 lb Fuel capacity: 1832 gal Opt bomb bay fuel: 583 gal Crew: 7 Max speed: 421 m.p.h. Ceiling: 31,000ft Service ceiling: 22,000 ft Range: 3,700 miles at 175 mph at 1000 ft Armament: 2x.50 in. machine-guns later 4 x 20mm canon Bombload: 2×294 mm. rockets or 8,000 lb; plus 16 x 5-in. rockets under wings.
AP 2E
Kawasaki P 2J Wing span is 97 ft 8.5 in (29.78 m). Max cruise: 250 mph (402 km/h).
In 1939 TWA formulated a requirement for a long-range transport and C. L. Johnson designed the 558km/h Constellation. The earliest Constellation was initially flown in January 1943. Designed for commercial transport, the first Constellations were produced for the U.S. Air Force as C-29s.
Engines: 4 x Wright R-3350-35 Cyclone 18, 2170 hp Length: 95.177 ft / 29.01 m Height: 23.655 ft / 7.21 m Wingspan: 122.999 ft / 37.49 m Wing area: 1650.014 sqft / 153.29 sq.m Max take off weight: 72013.1 lb / 32659.0 kg Weight empty: 50507.7 lb / 22906.0 kg Max. speed: 287 kts / 531 km/h Cruising speed: 261 kts / 483 km/h Service ceiling: 25000 ft / 7620 m Wing loading: 43.67 lb/sq.ft / 213.00 kg/sq.m Range: 2085 nm / 3862 km
Lockheed’s Advanced Development Projects organisation at Burbank (ADP), more commonly known as ‘The Skunk Works’, had stealth projects accelerated in 1977, and the Lockheed design was airborne from Groom Lake airfield, on the Nevada test range, by early 1978, flown by ADP chief test pilot Bill Park. Although only half the size of the F-117A, this aircraft’s configuration was broadly similar, and by the end of 1978, Lockheed had received a USAF contract to develop a full-scale production version. It contained warranties covering the aircraft’s range, weapons delivery accuracy and radar cross section.
Promising XST test results led to the development of two scaled-up YF-117A-LO prototypes which were followed by 57 production F-117As ordered in batches during the fiscal years 1980 to 1986 plus 1988. The first pre-production aircraft flew for the first time on 18 June 1981, and the first F-117A was handed over to the USAF in August 1982.
The programme was directed from AFSC’s Aeronautical Systems Division (ASD) by General Richard Scofield, who later moved on to become the B-2 programme director. According to Ben Rich, head of Lockheed’s ADP, the F-117A was developed in significantly less time and for less cost than comparable fighter aircraft. Using the streamlined management methods for which the Skunk Works is famous, ADP and ASD personnel “guided the programme through every step in a non-adversarial, problem-solving atmosphere”. At some stage of the process, the codename Senior Trend was adopted.
Although the F-117 is a radical design, every opportunity to minimise risk was taken. A number of components and systems were adopted from existing aircraft rather than designed from scratch, and this inspired programme managers to approve low rate production concurrent to full scale development. Most importantly, the quad-redundant digital fly-by-wire flight control system from the GD F-16 was incorporated. This allowed artificial stability and, therefore, much greater freedom to maximise the aircraft’s shape for stealth. The ejection seat also came from the F-16, while the environmental control system was from Lockheed’s own C-130 Hercules. Brake hydraulics were from the Gulfstream III business jet, while many avionics black boxes were purchased “off the shelf”. Finally, General Electric produced a non-afterburning version of the F404 designated the F1D2. This produces about 12,000 lb st (53,43 kN).
All the F-117s were manufactured at the Skunk Works’ Burbank headquarters before being trucked or flown in sections to Groom Lake for final assembly and test flights. On 15 June 1981, Skunk Works’ test pilot Hal Farley flew the first F-117A. This was a pre-production machine which was to crash a year later (21 June 1982) near Groom Lake while Ken Dyson was at the controls: he survived. The first aircraft destined for the customer was flying in early 1982, and deliveries to Tonopah began later that year. Lockheed received a second contract which increased the number of F-117s on order to 59, and these were completed at a rate of up to eight aircraft per year throughout the ‘eighties. The last aircraft was delivered on 12 July this year, two months ahead of the original schedule. The stealth fighter has been worth $6.265 billion to Lockheed and other contractors, of which $2 billion was spent on development. These are the actual dollar amounts that have been spent over the life of the programme to date, ie, the “then-year” dollar cost. The flyaway cost per aircraft is $42.6m.
The US Air Force formed the 4450th Tactical Group at Nellis AFB in 1980, and began recruiting pilots and groundcrew for the new aircraft. The pilots were nearly all drawn from the tactical fighter community (the 4450th reported direct to Tactical Air Command headquarters at Langley AFB until 1985). A minimum of 1,000 hours of mainly fighter time was required. The unit’s first aircraft were 20 LTV A-7D Corsair II attack aircraft which could be flown during daylight hours, unlike the “Black Jet”. They were to play an important role in maintaining pilot proficiency. In the first few years of operations, F-117 pilots were getting less than 10 hours per month in the aircraft. Despite this, an initial operational capability on the stealth fighter was achieved at Tonopah in October 1983 by the 4450th Test Squadron.
But on the night of 11 July 1986, an aircraft crashed outside the Nevada range, near Bakersfield, California, killing the pilot. In the first case, Major Ross Mulhare flew article number 792 into a hillside. Such was the extent of the security cordon thrown around the wreckage that most observers soon concluded that a stealth aircraft had crashed. Within a month, reports surfaced that about 50 “F-19 Stealth Fighters” were already fully operational at Tonopah. In fact, it was to be another three years before this number of the classified aircraft was to be in service, and the nature of the F-19 – if it exists – remains a mystery. The Pentagon has not explained the out-of sequence F-117 designation, six numerals beyond the last known previous allocation, F-111.
The second fatal crash in October 1987, may have been caused by pilot fatigue. In the second, Major Michael Stewart crashed 815 into gently sloping desert terrain near Tonopah on the night of 14 October 1987. No distress calls were made and accident investigators could find no mechanical cause. Both men were considered excellent fighter pilots. But there was little or no moonlight on either occasion and spatial disorientation may have been another factor. Despite the difficulties, the build-up continued. Tactics were constantly refined, although portions of the flying envelope were still being explored as late as 1989. A second unit, the 4451st Test Squadron, achieved operational status in January 1987, while a third unit, the 4452nd Test Squadron, was devoted to training.
After being operational for nearly six years, the US Air Force lifted, in April 1989, the veil of secrecy over the F-117 programme. The US Air Force had rotated its personnel in and out of the F117 operating unit on three-year tours throughout that time. Based at the remote Tonopah Airfield, at the edge of the Nevada Test Range, the stealth fighter was flown only at night to preserve secrecy. The USAF had spent over $295m developing the run-down Tonopah airstrip into a modern fighter base, complete with 12,000-ft (3 660-m) runway, 54 individual hangars for single aircraft and some of the most sophisticated security systems ever seen outside Fort Knox.
Officially, nothing had been said since the Pentagon’s brief admission, in 1980, that stealth aircraft were being test-flown.
Once the aircraft’s existence had been officially acknowledged – and a single, deliberately misleading photograph released – daytime flights began and new pilots no longer had to face the prospect of soloing on the aircraft at night. There are no two-seat conversion trainers, but a ground simulator has been in use at Tonopah for the last few years, built and operated by CAE Link. Now that daytime flying was possible, the unit was able to dispense with the A-7D Corsairs, trading them for eight Northrop T-38 Talons. These are used by instructor pilots in the training squadron who can now fly ‘chase’ as newcomers make their first flights in the F-117. The T-38s are also used for proficiency flying, but only a quarter of the unit’s pilots are dual qualified on both types. Once posted to one of the two operational squadrons, pilots begin night-flying in earnest. A combat-ready F-117 pilot still flies two-thirds of his sorties at night. He gets from 15 to 20 hours flying per month, with three to four sorties each week.
In October 1989, the F-117A unit received a regular TAC “number plate” when the 4450th Tactical Group was redesignated the 37th Tactical Fighter Wing. The three squadrons became the 415th TFS Nightstalkers (ex-4450th TS); 416th TFS Ghostriders (ex-4451 st TS) and 417th TFTS Bandits. (ex-4452nd TS). Having reported to the Tactical Fighter Weapons Center at Nellis AFB since 1985, the F-117A wing commander now takes his orders from TAC’s 16th Air Force at Bergstrom AFB, Texas. In December 1989, those orders included the wing’s first operational mission – against Panama during Operation Just Cause. Apart from this confirmed excursion, the unit is rumoured to have made training deployments to the UK and elsewhere.
The radar cross section (RCS) of an airframe varies greatly with the angle of observation. The wavelength of the radar is also a significant factor. The RCS of the F-117 when illuminated from certain key frontal and rear aspects may be as little as 0.1 sq ft equivalent to a medium-sized bird. Some of the energy from an air defence radar striking an F-117 is absorbed by its coating or structure, but most is reflected as ‘spikes’ in carefully-controlled directions. Most of these directions lead away from the transmitter/receiver in question, whether it be ground-based (eg, a SAM system) or airborne in a fighter. Those spikes of energy that are returned are very narrow.
The F-117, therefore, owes most of its extraordinary shape to the need to control these spikes. The entire fuselage surface consists of flat planes or ‘facets’ set in a limited number of alignments. These limitations also define the degree of sweep for both wing and V-tail, and the wingtip and trailing edge configuration. The wing and V-tail are also faceted, to a less obvious degree. No detail has been overlooked in the effort to produce an aircraft which is fully faceted. Undercarriage and bomb-bay doors, together with canopy and sensor port surrounds, all have serrated edges conforming to the required alignments. The faceting even extends to the edges where control surfaces meet the main structure. There are six control surfaces. The wing trailing edge consists of an elevon/flaperon arrangement for roll and pitch, while the all-moving tails are rudders with no influence on the pitch axis, unlike other V-tail designs.
On the F-117, the two powerplants are buried deep in the airframe and their intakes are ‘guarded’ against radar penetration by grilles. These grilles are made of composite material, and the grid size is an appropriate fraction of the main threat radar wavelengths. They cover a much larger intake area than those on other F404-powered aircraft. The larger area presumably compensates for the restriction in airflow to the compressor face caused by the grilles. Another compensation is evident when the aircraft is manoeuvering on the ground: auxiliary blow-in doors open in the intake area immediately aft of the grilles.
In a stealth aircraft, the cockpit transparency must also prevent radar energy from penetrating to the interior. It does so by shape (divided into five flat sections) and content (a conductive coating is laminated to the plexiglass to provide an effective barrier). To protect the ports in the nose and under the forward fuselage through which the aircraft’s two primary sensors view, a different solution was required. Here, unwanted electromagnetic energy is kept at bay by a screen mesh, which evidently does not interfere with the transmission of laser and infrared energy.
Apart from faceting, the F-117 also gains stealthiness from the almost complete absence of surface discontinuity. Apart from the faceted pitot heads projecting from the pointed nose, all the other protuberances usually associated with a combat aircraft are either eliminated by removal or retraction. There are no external weapons pylons or fuel tanks. Anti-collision lights are displayed on training missions, but removed and the gaps faired over before combat. Some other lights which remain have special lenses which reduce their radar return. Aerials for radio and IFF transmissions are retractable – strict radio silence is observed during combat missions. This super-smooth finish, therefore, eliminates the possibility of a discontinuity returning radar energy to the receiver, either directly from a corner type of reflection, or indirectly through the phenomenon known as ‘creep’. This consists of a certain amount of radar energy flowing around any surface that it strikes until reaching a discontinuity from which it is reflected.
Large fairings aft of the national insignia in the mid-fuselage area, and foot-long cylinders extending beneath the fuselage immediately aft of the undercarriage are radar reflectors which are carried when the aircraft is operating in controlled airspace so that air traffic control radars can actually track the “Black Jet”.
Contrary to some of the early speculation, the F-117 is not a “plastic” aircraft. During the Have Blue era the all composite Windeck Eagle light aircraft was modified and tested by Lockheed for stealth potential as the YE-5A. But the problem of shielding the remaining metal parts (engine, hydraulics, undercarriage) remained, although the YE-5A did contain internal radar absorbent material (RAM) for this purpose. In the mid ‘seventies, composite manufacturing technology had not matured sufficiently for it to be a viable option for the construction of a combat aircraft. The Skunk Works decided that the primary structure of their stealth fighter could be aluminium, although extensive use would be made of RAM inserts and coatings. Significant progress has been made in the manufacture and deployment of RAM since Lockheed’s first, failed attempt to use it successfully on the U-2 in 1956. The heavy weight and limited durability of RAM coatings made them unsuitable for application to airborne vehicles in those days. Also, the range of frequencies at which they were effective was limited.
“Stealth technology does not involve a single technical approach, but rather a complex synthesis of many. Even if 1 were willing to describe it to you, 1 could not do it in a sentence or even a paragraph”. Thus spoke the US Under Secretary of Defense for Research and Engineering, Bill Perry, when the stealth programme was first unveiled in 1980. In addition to radar signature reduction, therefore, the F-117 is also designed to present minimal infrared, acoustic, electromagnetic and visual signatures.
The engine exhaust slots are about six feet (1,83 m) wide and divided by vanes into 12 separate ports. They are shielded from the ground by an upturned lip – the rearward extension of the fuselage. This lip has a somewhat jagged edge and is believed to consist of ceramic tiles for greater dispersion of heat. Even before reaching the slots, exhaust from the non-afterburning F404s is already cooled by mixing with a proportion of cool air, which enters the intake, but by-passes the compressor face, before these unusual outlets promote further rapid mixing with ambient air. The exhaust plume therefore presents only a negligible infrared target for heat-seeking missiles. The buried engine and its inlet/exhaust configuration also serve to reduce jet noise the F-117 is noticeably quieter in an overhead pass than other combat aircraft.
It carries no radar or active jamming system. Navigation is by inertial platform targeting and attack is performed by passive means alone: FLIR and laser. As for visual signature, the F- 117 employs no exotic technology to defeat the power of observation. It goes to war under cover of darkness.
The pilot has no rearward visibility whatsoever from the cockpit: “it feels like you are flying at the tip of a spear,” said one F-117A pilot. The thrust to weight ratio is no better than 0.5, and wing loading is 55 lbs/ sq ft. It is capable of high subsonic speed only. Stealth fighter pilots say that it handles like an F-15 or F-16.
There are no curved surfaces and the underside is completely flat. The prismatic forward fuselage is actually taller at 12 ft 5 in (3,78 m) than the highly swept V-tail, which extends the aircraft’s length to 65 ft 11 in (20,09 m). An uncompromised and highly swept-back wing leading edge allows a 43 ft 4 in (13,21 m) span. Maximum gross weight is officially stated to be 52,500 lb (23814 kg) – slightly more than the F/A-18, which has similar dimensions.
The F117 is a one-mission airplane: the night attack of critical, high leverage targets with pinpoint accuracy. The aircraft carries “a sophisticated INS” which appears to be the prime means of navigation. Satellite navigation using GPS is a possibility, if a small, conformal antenna has been fitted. The two large turrets housed in recesses in the nose and under the cockpit contain combined infrared and laser targeting sensors. They are known as the FLIR and DLIR (Downward-Looking Infra Red) respectively, and are wide field of view sensors. The digital avionics suite is said to be “state-of-the-art”, and based upon those in the F/A-18 which has three CRTs surrounding an information control panel and a HUD.
The weapons payload is not very great – perhaps 5,000 lb/2 270 kg – since all ordnance is carried internally in a bomb bay measuring some 16 ft (4,9 m) in length and 6 ft (1,83 m) in width. “Smart” bombs appear to be preferred: two laser-guided Mk 84 Paveway II 2,000-pounders. The imaging infrared guidance version of the GBU-15 (also based on the Mk 84) may also be an option. A submunitions dispenser designated BLU-109 is also mentioned as F-117 ordnance.
The F-117 apparently does straight and level attacks at 5,000 ft. The F-117 would conduct an attack mission cruising at an economical 20,000 ft (6 100 m) or more, it descends when approaching the target area, but only as low as necessary for the FLIR to perform satisfactorily. The DLIR’s function is to continue the imaging and designation of the target as the aircraft passes overhead. Compared with conventional low-level attacks, the F- 117 method allows targets to be detected at greater range, allows the pilot to retain broader situational awareness, and gives a more vertical bomb impact (enhancing accuracy and penetration).
The aircraft’s first combat mission to Panama was an inconclusive demonstration of its capability. The decision to employ F-117s in Operation Just Cause was a strange one. Unlike the Libyan raid, for which the F-117 was also available, there were no air defence fighters, radars or SAMs to contend with. USAF commanders said that the F-117 was chosen simply because it was considered more capable than any other available aircraft for the precision nightime delivery of 2,000-1b (907-kg) bombs. Six aircraft made a 5,200-naut mile (9 650-km) round trip from Tonopah, with multiple aerial refuellings. There were two sets of targets, each to be attacked by a pair of aircraft (the other two aircraft were backups). In the event, the ground commander called for only one target to be attacked: two F-117s were each to drop a 2,000-lb bomb in fields some 150 ft (46 m) from two army barrack blocks at Rio Hato. These were intended to disorient the occupants and distract their attention from a parachute landing of US forces which would closely follow the bomb drop.
The lead pilot was to deliver his bomb near the barracks to the left of the flight path. Number two was to use the first bomb hit as a reference point to drop his bomb near to the right barracks. But during the approach to Rio Hato, the lead pilot determined that the prevailing left-to-right wind over target might cause debris and smoke from his bomb to obscure the right barracks. He therefore announced that he was switching his attack to the right barracks, and that number two should adjust accordingly and attack the left barracks. Since the barracks were obscured by low cloud, the pilots were not able to acquire them through the FLIR or DLIR until they descended into the clear with a short distance to run. At this stage, the lead pilot apparently mistook the left barracks for the right barracks. His bomb actually achieved the required accuracy, against the target that he had originally nominated for himself. But his number two was still working to Plan B, and he therefore offset his bomb to the left of the first explosion, and missed the target area by almost 1,000 ft (305 m).
Production of 59 F-117As ended with final delivery on 12 July 1990. By July 1997 the Lockheed company set-up then included Lockheed Martin Skunk Works which undertook advanced, secret and innovative design/development, work including support and improvement of the F-117.
In January 1991 with the Gulf conflict and a major proportion of the USAF fleet (42 out of the surviving 54) were eventually based in Saudi Arabia with 415th Tactical Fighter Squadron ‘Nightstalkers’, the 416th TFS ‘Ghostriders’ and the 417th Tactical Fighter Training Squadron ‘Bandits’, all comprising the 37th Tactical Fighter Wing, one of whose aircraft dropped the very first bomb of Operation Desert Storm on 17 January 1991.
After repeated sightings by civilians, in July 2025 the US Air Force has finally acknowledged that it still operates the F-117 Nighthawk for training purposes.
Despite officially being retired from active service in 2008, the F-117 Nighthawk stealth bomber has been continuously sighted by civilians flying in the Nevada desert. After a long period of silence, the US Air Force recently acknowledged that the service continues to fly the stealth bomber, in limited numbers, largely in a testing and training role.
Stationed at the Tonopah Test Range Airport in Nevada and Groom Lake, more famously known as Area 51, multiple F-117s remain in flyable condition. The flights, originally classified and rarely acknowledged, have become more public over the last decade or so, thanks to sleuthing civilians who have sighted the aircraft multiple times—forcing the Air Force to acknowledge the truth.
The Air Force continues to operate the F-117 for several reasons. The aircraft offers a low-observable capability, making it ideal for developing and evaluating new radar systems, infrared tracking technologies, and stealth countermeasures. The F-117 can allow the United States to fine-tune its defensive abilities against adversary stealth aircraft. The F-117’s radar-evading abilities are outdated, but can still serve as an asset during exercises, simulating enemy stealth aircraft. The F-117’s stealthy adversary role is especially important as hostile states, such as Russia and China, develop their own fifth-generation fighters.
Moreover, the F-117 is most likely being used as a testbed for new stealth systems, such as radar-absorbent coatings, sensors, and possibly autonomous systems—all without risking damage or expensive modifications to more relevant and expensive aircraft like the F-22 Raptor or the forthcoming B-21 Raider. The F-117 experiments are expected to continue into the late 2020s, before gradually being drawn down.
However, despite its groundbreaking design, the F-117 had limitations. Most notably, the aircraft could not be exposed to moisture or rain, which would degrade its radar-absorbent materials (RAM). That limited the situations in which the F-117 was deployable. The aircraft also lacked defensive countermeasures, relying instead on precise mission planning and support from other aircraft. And when an F-117 was shot down by a surface-to-air missile over Serbia in 1999, the world saw that the invisible aircraft was not invincible.
F-117A Nighthawk Engines: 2 x General Electric F404-GE-F102 non-afterburning turbofan, 5400kg / 24 kN Length: 65 ft 11 in (20.3 m) Height: 12 ft 5 in (3.78 m) Wingspan: 43 ft 4 in (13.2 m) Wing area: 105.9 sq.m / 1139.90 sq ft Empty weight est: 13.381 kg (29,500 lb) Max take-off weight: 23814 kg / 52500 lb Max level speed Mach 0.98 / 1.040 km/h (656 mph) Service ceiling: 15,240m (50,000 ft) Range: 1663 nm / 3080 km Cruise speed: 0.9M Air refuelling: yes Armament: Internal 2268 kg (5,000 lb) Unit Cost: US$45 million. Crew: One.
Lockheed were aware that USAF experience in Korea had shown the need for an air-superiority fighter able to operate from forward airfields and climb rapidly from the ground to engage in high-level combat. The Model 83 was designed to fulfil these roles, and in formulating his design “Kelly” Johnson attempted to keep it as cheap, small and readily maintainable as possible. Tendered to the USAF as an unsolicited proposal, it was necessary for competitive bids to be received and the USAF notified a formal requirement for such an aircraft in late 1952.
Submissions were received from North American and Republic; but as both of these companies were already heavily involved in fighter development and production, Lockheed’s proposal was selected cautiously: two XF-104 prototypes being ordered for development and testing. The long fuselage was tailored round the J79 engine, and the flying surfaces were small, unswept and very thin, with 10 degrees of anhedral. A token monoplane wing mid-set on the fuselage – this latter assembly wrapped tightly round a powerful turbojet engine – needle-nosed and T-tailed. All wheels, with a single wheel on each unit, retract forward into the fuselage. Able to demonstrate a level speed of around 2,250km/h and to climb to a height of 25km in about 4.5 minutes, the Press dubbed the Starfighter the “missile with a man in it”.
XF-104
The XF-104 had a narrower and shorter rear fuselage compared to the production models. The two prototypes had a 10,500 lb Wright J65-W-6 turbojet but all subsequent aircraft had a J79 turbojet.
The first of these flew on 28 February 1954, followed by test and evaluation aircraft. It was not until 26 January 1958 that the first production F-104A began to enter service – as interceptors – with Air Defense Command’s 83rd Fighter Interceptor Squadron. The US Air Force had already lost interest in the type and took only 296 Starfighters.
F-104A (170) and multi-mission F-104G (77) served with the USAF, as well as F-104B (26) and F-104D (21) two-seat operational-trainer counterparts of the A and C respectively.
Lockheed F-104B Starfighter
The type was then saved by the creation of the F-104G multi-role version for production by a multi-national European consor¬tium as well as for Japan.
Winner of a previous so-called ‘sale of the century’ and used by several NATO air arms for many years. During its heyday the Starfighter formed the backbone of the NATO alliance’s air power and a number of reconnaissance-configured aircraft were produced, sensor packages varying considerably according to the specialized requirements of the parent air arm.
The German Luftwaffe, in their technological zeal, had insisted on overloading the F-104 with equipment which made it much heavier and more complex than the original model. The Starfighter programme began to go wrong after the first had been delivered in May 1961. The German pilots, even after extensive training in Arizona, were not fully experienced. The Starfighter, in the words of General Steinhoff, then inspector of the Luftwaffe, “was forever jealous of the pilot’s full attention. It rewarded discipline with deeds of airmanship; it could punish the dilatory of those who gave themselves to distractions. It was a marvel in capable hands, and merciless to the careless”.
Up to December 1968 ninety-one Starfighters crashed. With each series of Luftwaffe crashes the original choice of the Starfighter became more contentious, and by the time of the 1966 elections the Starfighter bribery scandal played a role in the fall of the Chancellor, Ludwig Erhard. Deliveries of 30 F-104F trainers to the Luftwaffe began in mid-1960.
F-104F
The most widespread variant was the RF-104G, which featured a belly fairing containing cameras, installation of these necessitating the removal of the M61 Vulcan rotary cannon armament. West Germany, Italy and the Netherlands all operated this variant of the Starfighter for a time, although the Netherlands used the standard F-104G for reconnaissance tasks, using the Orpheus pod to accomplish this mission. The German Luftwaffe and Marineflieger used the RTF-104G two-seater.
Following development by Lockheed of the multi-mission F-104G, more than 1,000 came from production lines in Belgium, Germany, Holland and Italy to equip the air forces of those nations. Similar versions were built under licence in Canada and Japan. Lockheed also built 179 F-104G for export or for supply to friendly nations through the Military Assistance Program. These were essentially similar in appearance to their European counterparts and were fitted with three Hycon KS-67A cameras, examples being delivered to Norway and Taiwan, most of the Norwegian specimens being passed on to Turkey.
In 1964 West Germany cut down the intended size of its Luftwaffe because of shortages of funds and manpower. They will reduce the nine F-104G Starfighter squadrons to seven, and two Fiat G.91 reconnaissance squadrons instead of four. First line strength will be 380 F-104G’s and 170 G.91’s.
F-104G 26+11
The Canadian built CF-104 Starfighter was one of the most successful jet fighter aircraft to serve with Canada’s Air Force. A total of 340 fighters were built under license by the Canadian government. The CF-104 was designed as a light-weight nuclear strike aircraft. The aircraft were retired from service in 1986 after being used for over 25 years until they were was replaced by the CF-18. Canada’s CF-104 (Canadian-built F-104G) was also originally engaged in reconnaissance duty, aircraft assigned to this task being fitted with a prominent belly-mounted pod containing a battery of Vinten cameras.
Canadair CF-104 Starfighter
Thirty-nine CF-104D models built by Lockheed were purchased by the Canadian Air Force for training.
The CF-104 (single seat version) was built in Canada under license by Canadair in Cartierville, Quebec. The first aircraft produced by Canadair flew in May 1961, with 200 single seaters (CF-104) being produced for the RCAF. 22 Lockheed-built two seaters (CF-104D) were also used by the RCAF. The aircraft in later years provided a measure of unparalleled stability in the low-level, high speed environment until phased out in 1986. The majority of the Starfighters were transferred to the Turkish Air Force. After the RCAF production order was filled in June 1963, Canadair produced another 140 aircraft for other countries.
On 19 May 1964 Jacqueline Cochran set a world speed record of 1429.297 mph for women flying an F-104G over a 10 mile straightline course at Edwards Air Force Base, California. The Mach 2.2 flight broke her similar mark of 1273.109 mph.
Production ended in America, but in 1966 the first prototype of the Aeritalia built F 104S flew for the first time. The Italian Air Force is receiving a total of 205 aircraft, and Turkey received 40 from 1974. Power is provided by one 17,900 lb thrust (with afterburning) General Electric J79 GE 19 turbojet engine. Armament in an air to air role consists of two Sparrow and two or four Sidewinder missiles, plus the 20 mm M 61 multi barrel cannon. In an attack role bombs, rockets, and other weapons up to a weight of 7,500 lb (3400 kg) can be carried on nine wing and fuselage stations.
Post-war Mitsubishi built Lockheed F-104J Starfighters with Kawasaki. Eventually Japan ordered 230 Starfighters – nearly all of them built under licence by Mitsubishi in Japan. Lockheed was estimated later to have paid bribes of about $1.5 million to Japanese officials, and a fee of $750,000 to Yoshio Kodama, one of the most powerful people in Japan.
Total Starfighter pro¬duction was 2,282 units.
A Starfighter, built from non-serviceable ex-military aircraft components by American Darryl Greenmayer over a ten-year period, was the fastest and most complex “homebuilt” aircraft ever completed. With this aircraft, prepared by American Jet Industries in California and known as the Red Baron RB-104 Starfighter, he raised the world speed record over a 3km low-level course to 988.26 mph / 1,590.45 kph on 24 October 1977 at Tonopah, Nevada. The RB-104 was lost in an accident in 1978.
For training in the aerospace field, three early Starfighters have been modified to NF-104A standard by the addition of a 6,000 lb thrust (2722 kgp) Rocketdyne AR-2 booster and reaction jet controls for exploration missions up to heights of nearly twenty five miles. USAF pilots training for the X-20 Dyna-Soar roles use the NF-104A to learn atmosphere re-entry techniques.
NF-104A
The NF-104A is designed to fly regularly to 25 miles altitude. The Rocketdyne engine is throttleable from 50 to 100% power. The NF-104A provides spaceflight experience at a fraction of X-15 operating costs.
The NF-104A was to zoom climb to over 90,000ft where atmospheric pressure was about 6 millibars. About 1% of the pressure at sea level. In the near vacuum the only way to control the plane at the top of its ballistic arc was with jets of hydrogen peroxide for pitch, yaw and roll control. The jet engine would be shut down at about 70,000ft to prevent it from exceeding temperature limits. If not shut down, the engine would have introduced yaw motion challenging the ability to control the aircraft. During the descent, at about Mach 1.8, enough air would pass through the intake ducts to allow a re-start or a dead-stick landing would be made. On 10 December 1963, Chuck Yeager reached 108,700 ft (Yeager wanted to set a new world altitude record) when a pitch up caused the NF-104A to fall on its back and enter a flat spin. At 14,000 ft hr ejected.
Versions F-104A (interceptor) F-104B (two-seat trainer) F-104C (tactical strike) F-104D(two-seat trainer) F-104G (definitive multi-role warplane with a strengthened structure, more power, and revised electronics) TF-104G (F-104G trainer) F-104J (F-104G ver¬sion for Japan) F-104S (improved air defense version developed in Italy) CF-104 CF-104D (CF-104 two-seat trainer). NF 104A RB-104
Specifications
F-l04A Armament: 1 x six-barrel M-21 20mm Vulcan cannon & 2 x Sidewinder AAMs.
F-l04G Engine: 1x 15,800-lb (7,167-kg) reheated thrust General Electric J79-GE-7 or llA turbojet or Turbo-Union J79-MTU-J1K. Wing span 21 ft 11 in (6.68 m) Wing area 196.1 sq ft (18.22 sq.m). Length 54 ft 9 in (16.69 m) Height 13 ft 6 in (4.11 m) Empty weight 14,900 lb (6,758 kg) Maximum take-off weight 28,779 lb (13,054 kg). Fuel capacity: 847 Imp.Gal External fuel: 2 x 162 Imp.Gal under wing, 2 x 142 Imp.Gal tip tanks Maximum speed 1,450 mph (2,333 km/h) or Mach 2.2 at 36,000 ft (10,975 m) Initial climb rate 55,000 ft (15,765 m) per minute Service ceiling 58,000 ft (17,680 m) Range 1,550 miles (2,495 km) Range w/max.payload: 370 km / 230 miles Armament: one 20-mm multi-barrel cannon Bombload: 4,310 lb (1,955 kg) of disposable stores. Crew: 1 Wheel tract: 8 ft 9 in Wheelbase: 15 ft 1 in
TF-l04G Seats: 2.
RF-104G Engine: one General Electric J79GE- 1 IA turbojet, 7167-kg (15, 800-1b) afterburning thrust. Maximum low level speed 1473 km/h (915 mph) or Mach 1.2 Maximum stabilized speed at 12190 m (40,000 ft) 2124 km/h (1,320 mph) or Mach 2.0 Tactical radius with external fuel 1110 km (690 miles) Empty weight 6486 kg (14,300 lb) Maximum take-off: 11352 kg (25, 027 lb). Wing span 6.68 m (21 ft 11 in) Length 16.69 m (54 ft 9 in) Height 4.11 m (13 ft 6 in) Wing area 18.22 sq.m (196.1 sq ft).
F 104S Wing span: 21 ft 11 in (6.68 m). Max speed: M2.2.
Lockheed CF-104D Mk.2 Engine: General Electric J79-19 turbojet 11,810 lbs. thrust, 17,900 lb. with afterburner Maximum Speed: Mach 2 Loaded weight: 26,800 lb (12,156 kg) Span: 21 ft 11 in (6.4 m) Length: 58 ft 3 in (17.7 m) Height: 13 ft 6 in (4.1 m) Wing area: 196 sq ft (18.2 sq m)
The F-94 Starfire was evolved to satisfy a requirement for a two-seat all-weather radar-equipped fighter. It originally used many of the main components and the production facilities of the two-seat T-33 trainer. The prototypes were converted T-33A, each with a new 26.69kN Allison J33-A-33 turbojet, radar equipment installed in the fuselage nose and accommodation for the radar operator in the rear cockpit. Its 1,200 lb. of electronic equipment includes automatic target location, tracking and rocket-firing radar. Armament of four 12.7mm guns was retained in the forward fuselage.
Deliveries of production F-94A began in June 1950. These incorporated the wings, landing gear and centre fuselage of the T-33, with a new nose and rear fuselage (former to house the radar and the latter for the afterburner installation). All hydraulic, electric and control systems were similar to those of the F-80C.
1948
The F-94A were followed in 1951 by F-94B which differed in having square wingtips with centrally mounted Fletcher tip-tanks of larger capacity and improved shape, raised to the wing centre-line, and a revised hydraulic system.
The final version was the F-94C with a thinner wing, longer nose, swept horizontal tail surfaces, larger vertical surfaces, a more powerful engine, and the radome centred in the fuselage nose and surrounded by a ring of 24 air-to-air rockets housed in firing tubes, faired by a retractable shield. Two pods (one mounted on each wing) could together accommodate 24 more rockets. A total of 544kg of electronic equipment included automatic locating, tracking and firing instruments, Westinghouse autopilot, Sperry Zero-Reader, ILS, etc.
F-94C
A total of 854 production Starfires were built. The USAF’s first turbojet-powered all-weather interceptor, the type served primarily with Air Defense Command for national defence.
F-94C Engine: 1 x Pratt & Whitney J48-P-5 turbojet with afterburner, 6,250 lb / 28.2kN thrust Max take-off weight: 10970 kg / 24185 lb Empty weight: 5764 kg / 12708 lb Wingspan: 11.38 m / 37 ft 4 in Length: 13.56 m / 44 ft 6 in Height: 4.55 m / 14 ft 11 in Wing area: 21.63 sq.m / 232.82 sq ft Max. speed: 1030 km/h / 640 mph Ceiling: 15665 m / 51400 ft Range: 1296 km / 805 miles Armament: 48 x 2.75 in Crew: 2
In December 1945 the USAAF began to receive its first jet fighter, the Lockheed P 80 Shooting Star, and it soon became clear that a trainer version was essential. Lockheed’s P-80 Shooting had developed into a lengthened-fuselage two-seat trainer version, designated originally TF-80C. The first of these flew on 22 March 1948.
In addition to the fuselage ‘stretch’, a second cockpit in tandem was provided with dual controls, the transparent canopy was extended to cover both cockpits and the armament of the F-80 was deleted. Original engines were Allison J33-35 single-shaft turbojet engines with a thrust rating of 5,200 lbs.
Test pilot Jim Fitzgerald was killed during an approach to landing in the first T-33 that Lockheed built.
T-33A
The type eventually became the USAFs standard jet trainer, many being supplied to foreign nations under the Military Aid Program. 1,058 were supplied to friendly nations under the program. They were also built for service with the US Navy and Marine Corps under the designation TV-2, later T-33B.
TV-2 Seastar
A total of 128 TF-80C were built before the designation was changed to T-33A in May 1949.
Derived from T 33 as shipboard trainer, a total of 271 T-1 Seastar trainers were built for U.S. Navy during 1957 58.
Variants included small numbers modified as DT-33A drone directors and AT-33A armed close-support aircraft.
After a production run of 11 years the 5691th and last Lockheed T-33A Shooting Star was delivered by Lockheed at the beginning of August 1959.
A total of 5,691 were built by parent company, 656 built in Canada (by Canadair Ltd as CL 30 Silver Star with Nene 10), and 210 built in Japan (by Kawasaki). The aircraft was supplied to the air arms of some twenty-five countries.
In 1963 Libya started its own Air Force when the US turned over two T-33 and a C-47 at Wheelus AFB.
Canadair was given a contract in September 1951 to manufacture the T-33 with the first flight being in December 1952. The Canadair CL-30′ Silver Star’, later designated CT-133, was a tandem two-seat, armed trainer version of the T-33A, powered by a Rolls Royce Nene 10 turbojet, delivering 5,400 lb thrust. 636 were built under licence for the Royal Canadian Air Force from 1952. It was used as an instrument flight trainer whilst in service with the Canadian forces in Germany. The Silver Star Mks. 2 and 3 differed from the U.S. manufactured T-33A in being powered by a Rolls-Royce Nene 10 turbojet. Armament consisted of two nose-mounted 12.7 mm (0.5 in) machine-guns plus various light bombs, rockets and machine-gun pods. It had a service ceiling of 48,000 feet, a maximum speed of 600 mph at sea level and a cruising speed of 455 mph. The normal range was 1,025 miles and the maximum range was 1,275 miles. Canada gave T-33s to Bolivia, France, Greece, Portugal and Turkey under the Mutual Aid programme.
CL-30 Silver Star
By the end of 2000, 7 nations in the world still listed the T-33 as “in service.”
Circa 1964 a T-33, modified and operated for USAF Flight Dynamics Lab at Wright Patterson AFB, by Cornell Aeronautical Laboratory, has a variable drag system provided by servo-driven petals mounted on wing tanks. Simulation of flight path and handling qualities of lifting-body re-entry vehicles was made on both front and back of the power curve.
Cornell Aeronautical Laboratory modified T-33
Cornell Aero Lab at Cornell University in Ithaca, New York, had a variable-stability aircraft, a Lockheed NT-33A Shooting Star, which Neil Armstrong flew, testing experimental sidestick controller.
T-33 Engine: 1 x Allison J-33-A-5, 24.0kN Max take-off weight: 5900 kg / 13007 lb Empty weight: 3810 kg / 8400 lb Wingspan: 11.9 m / 39 ft 1 in Length: 11.5 m / 37 ft 9 in Height: 3.6 m / 11 ft 10 in Wing area: 22.0 sq.m / 236.81 sq ft Max. speed: 965 km/h / 600 mph Ceiling: 14700 m / 48250 ft Range w/max.fuel: 2150 km / 1336 miles Crew: 2
T-33A Engine: 5,400 lbs.t. (2450 kgp) Allison J33 A 35. Max level speed: 543 mph (874 kph). Max speed, 600 mph (966 kph) at sea level Cruise, 430 mph (692 kph) Initial climb, 5,525 fpm (28 m/sec) Service ceiling, 47,500 ft (14,477 m) Range, 1,345 mls (2164 km). Empty weight 8,084 lb (3 667 kg) MTOW, 11,965 lb (5428 kg). Wing span, 38 ft 10.5 in (11.85 m) Length 37 ft 9 in (11.49 m) Height: 14 ft 4 in (3.45 m) Wing area, 237 sq.ft (22 sq.m).
T-33A Engine one 5,400-lb. Allison J-33-A/4 turbojet with w/water-alcohol injection. Gross wt. 16,800. Empty wt. 8,440. Total fuel: 813 USG; 230 in each tip tank. Max Speed 525 mph. Long range cruise 455 mph. Range 1,000 nm. Ceiling 47,000′. Seats (ejection) 2.
T 1A Seastar Engine: 6,100 lbs.t. (2 767 kgp) Allison J33 A 22 turbojet. Max speed, 580 mph (933 kph) at 35,000ft (10 668 m) Cruise, 410 mph (660 kph) Initial climb, 6,330 fpm (32.1 m/sec) Service ceiling, 40,000ft (12 192 m) Range, 967 mls (1566 km). Empty weight, 11,965 lb (5 428 kg) Loaded weight, 15,500 lb (7 031 kg). Wing span, 42 ft 10 in (13.05 m) Length, 38 ft 6.5 in (11.73 m) Wing area, 240 sq.ft (22.3 sq.m).
Canadair CL-30 Engine: Rolls Royce Nene 10 turbojet, 5100 lb (2,315 kg) Span: 37 ft 7 in (11.48 m) without tip tanks Wing Span: 38 ft 10.5 in Length: 37 ft 9 in (11.49 m) Height: 11 ft 8 in (3.6 m) Wing area: 238 sq ft (22.11 sq m) Empty weight: 8,440 lb (3,832 kg) Loaded weight: 18,400 lb (8,217 kg) Maximum speed: Mach .787 Armament: Two .50 calibre Browning machine guns
In the spring of 1943 Allied intelligence became aware of the ME262 jet fighter, little was known about it but under the direction of Henry H. Arnold, the Commanding General of the U.S. Army Air Forces the decision was taken to bring the USA into the jet age. The development of the earlier XP59 Airacomet had not inspired confidence in the turbojet jet but with the reliability and power of the British developed engines increasing by the day the Americans decided that they could not afford to be left behind.
Arnold went to Lockheed and convinced them to build an airframe around the de Havilland Halford H1 (Goblin) which was already produced almost 2,300 lbs of thrust of the drawing board with promise of a great deal more. A design was submitted by what would be known as the ‘Skunk Works’ team led by Kelly Johnson claiming that the airframe could be built and ready for testing in 180 days, in the end it took just 143 being delivered to Muroc field (now Edwards AFB) on the 16th November 1943.
The design proved acceptable to the USAAF was a low-wing cantilever monoplane with a knife-edge laminar-flow wing section; engine within the rear fuselage; air intakes on each side of the fuselage forward of the wing leading edge; and retractable tricycle-type landing gear. Equally attractive was the company’s proposal to complete an initial prototype within 180 days and little time was lost in awarding contracts for three prototypes and 13 service trials aircraft. Work on the first prototype began in August 1943 and just 143 days later (on 8 January 1944) this aircraft flew for the first time.
XP-80
The first flight was delayed by foreign object damage which destroyed the engine on the first run up. A new engine was shipped from Britain allowing the first prototype (44-83020) nicknamed Lulu-Bell to get airbourne on the 8th January 1944. It was flown by Lockheed test pilot Tony LeVier. Service designation of the prototype was XP-80. Its power plant was a 13.34kN de Havilland H-1 turbojet.
Plans for this engine to be built by the Allis-Chalmers Company in America did not happen, so the next two prototypes each had a 16.68kN General Electric 1-40 turbojet, based on the Rolls Royce Derwent and also built by Allison as the J33. This was a larger and more powerful engine than the intended Allis-Chalmers J36, involving redesign which included increased span and length, a taller fin and strengthened landing gear. The exercise cost five months, for it was not until 10 June 1944 that the first of these two XP-80A was flown, by Tony Le Vier. Its first flight performance was not impressive and even with the technical difficulties rectified it was still considered worse than the H1 powered XP-80.
XP-80A 44-83021 Gray Ghost
The XP-80A’s were primarily testbeds for bigger engines and intake duct design, and consequently were larger and 25% heavier than the XP-80, a big factor in their poor performance. The P-80 testing program proved very dangerous. Milo Burcham was killed on 20 October 1944 while flying the third YP-80A, 44-83025 while the “Gray Ghost” was lost on a test flight on 20 March 1945, although pilot Tony LeVier escaped being able to bail out when the engine failed due to a turbine blade failure.
These two prototypes were designated XP-80A and were powered by the Allison-developed General Electric J33 engine of 1814-kg (4,000-1b) thrust, with low-set equi-tapered laminar-flow wings and engine air intakes set into the fuselage just forward of the wing roots, this version had a top speed of 898 km/h (558 mph) at sea level.
Thirteen development YP-80A aircraft for service trials, with J33-GE-9 or J33-GE-11 engines and an armament of six machine guns in the nose, started delivery to test establishments in October 1944 and it was aircraft of this type that arrived in Italy in May 1945. Two examples reached the Italian war zone just before VE-day, but failed to fly an operational sortie.
Ordered into quantity production during April 1944, the Shooting Star subsequently suffered cancellations after VJ-Day, but was proceeded with and as the P-80A attained operational service with the 412th Fighter Group during 1946, although poor serviceability and a very high accident rate significantly reduced its value. Production P-80A had wingtip tanks and provision for bombs, rockets and fuel tanks to be carried beneath the wings, plus six 12.7mm guns mounted in the fuselage nose.
Production deliveries of the P-80A did not start until December 1945, four months too late to see action against the Japanese.
The Shooting Star made a number of important flights, these including the first west-to-east trans-atlantic crossing by jet which was accomplished by 16 F-80s of the 56th Fighter Group in July 1948. One Shooting Star has set a world speed record of 1,003.91km/h on 19 June 1947. The P-80 designation changed to F-80 in 1948.
The second model to enter production was the F-80B, which featured numerous refinements such as thinner wing section with thicker skin, stronger bulkheads in the nose section to support greater fire-power, more power, stainless steel armoured engine compartment, provisions for JATO, and provision for rocket launchers. But only 240 of this model were completed before manufacture switched to the definitive F-80C. This possessed even greater power and also better armament and increased underwing weapons capability, no less than 670 being completed by the end of 1950, by which time the USA was in the Korean War.
The RF-80C being an unarmed photographic reconnaissance sub-variant.
The F-80C saw extensive action in the Korean War, one highlight occurring on 8 November 1950 when an F-80C flown by Lieut Russell J. Brown succeeded in downing a MiG-15 in what was believed to be the first conclusive aerial combat between jet fighters. On the whole, though, the Shooting Star possessed inferior performance and was mainly employed as a fighter-bomber. For Korea, F-80 were adapted to carry two 227kg and four 118kg fragmentation bombs or two 450kg bombs plus eight rockets or four 40 US gallon napalm bombs.
F-80 Shooting Star, Suan, Korea
Variants have included reconnaissance RF-80, QF-80A and QF-80F drones, and one F-80C was converted as a prototype two-seat trainer.
XP-80 Engine: de Havilland Goblin centrifugal flow turbojet, 3000 lb Max speed: 502 mph.
P 80A Shooting Star Engine: one 1814 kg (4000 lb) thrust General Electric J33 A 11 tur¬bojet. Max speed 933 km/h (580 mph) at 8535 m (28,000ft) Initial climb rate 1395m (4,580ft) per minute Service ceiling 13715 m (45,000 ft) Range 870 km (540 miles) Empty weight: 3593 kg (7,920 lb) Maximum take off weight: 6577 kg (14,500 lb) Wing span 12.17 m (39 ft 11 in) Length 10.52 m (34 ft 6 in) Height 3.45 m (11 ft 4 in) Wing area 22.11 sq.m (238.0 sq.ft). Crew: 1 Armament: six 12.7mm (0.5 in) machine guns in the nose, 2 x 454kg Bomb / 10x 5″ Rockets.
F-80C Shooting Star Engine: one 2449-kg (5,400-lb) thrust Allison J33-A-35 turbojet Wingspan 12.15 m (39 ft 10.5 in) Wing area 22.02 sq.m (237 sq ft) Length 10.52 m (34 ft6 in) Height 3.45 m (11 ft 4 in) Wheel track: 8 ft 7 in Empty weight: 3738 kg (8,240 lb) Maximum take-off weight: 7646 kg (16,856 lb) Maximum speed 956 km/h (594 mph) at sea level Initial climb rate 2094 m (6,870 ft) per minute Service ceiling 13030 m (42,750 ft) Range 1706 krn (1,060miles) Max endurance: 3 hr 12 min Crew: 1 Armament: six 12.7-mm (0.5-in) M3 machine-guns, 907 kg (2,000 lb) external ordnance or 16 127-mm (5-in) rockets.
In 1963 the USAF’s Military Air Transport Service issued a require¬ment for a very large logistics transport aircraft. Finally, this and other requirements evolved into specification CX HLS (Cargo. Experimental Heavy Logistics System) which demanded an aircraft capable of carry¬ing a payload of 56 700 kg (125 000 lb) over a range of 12 875 km (8000 miles) and twice that weight over shorter distances. It also had to be able to take off from the same runways as the smaller C 141 StarLifter and have the capacity to land on roughly prepared strips in combat areas. In May 1964 the Boeing, Douglas and Lockheed companies were asked to develop their submitted designs further. The gross weight requirement had by then been increased to 317 500 kg (700 000 lb), and General Electric and Pratt & Whitney were invited to design a suitable powerplant. Towards the end of the following year the choice was made in favour of a Lockheed/General Electric partnership, and the aircraft was officially designated C-5A Galaxy.
Eight test and evaluation machines were built, beginning in August 1966, the first C-5A Galaxy (#66-8303) was “rolled out” on 2 March 1968.
On June 30th 1968 Lockheed-Georgia Co. began flight testing with the aircraft’s first flight taking to the air under the call-sign “Allen-zero-three-heavy”, upon completion of testing the first C-5A was transferred to the Transitional Training Unit at Altus Air Force Base, OK, in December 1969.
The first flight crew were Lockheed Chief Engineering Test Pilot Leo J. Sullivan in left seat. Co-pilot was C-5 Project Pilot Walt Hensleigh. Behind them in jump seat, Lt. Col. Joe Schiele, Chief Air Force C-5 Test Pilot. Flight Engineers were “Mitt” Mittendorf (left) and Jerry Edwards (right).
C-5 first flight
It is a high wing cantilever monoplane, with a semi monocoque two deck fuselage of aluminium and titanium alloy construction and a cantilever all metal ‘T’ tail. The nosewheel unit retracts rearward hydraulic¬ally, as do the four main undercarriage bogies, each consisting of two sets of wheels in tandem on each side of the fuselage. Powered by four General Electric TF39 GE 1 turbofan engines, each rated at 18600 kg (41005 lb) thrust at sea level, the Galaxy carries a maximum usable fuel load of 185 480 litres (40 800 Imp gal) and can be refuelled in flight from a KC 135 tanker via an inlet in a fairing on top of the forward fuselage, just aft of the flight deck. For takeoff, a fully loaded Galaxy needs 2135 m (7004 ft) of runway, but can land in 680 m (2230 ft).
A crew of five is normally carried, includ¬ing a loadmaster, and there is a forward rest area on the upper deck for 15 persons (relief crew, etc). Although intended primarily as a freighter, the basic version can carry 75 troops at the rear of the upper deck and 270 on the lower deck. Loads lifted have included a 35380 kg (78000 1b) Minuteman ICBM and its 3175 kg (7000 1b) launching cradle; two 44 905 kg (99 000 1b) M 48 tanks; or three Boeing Vertol Chinook heavy lift helicopters. Loading can be done from front or rear, or from both ends simultaneously. There is an upward hinged nose door and loading ramp at the front; the rear straight in loading ramp, when closed, forms part of the undersurface of the rear fuselage.
Flight testing of the Galaxy continued until the summer of 1971. Deliveries of production aircraft to Military Airlift Command began on December 17, 1971, (to the 437th Airlift Wing, Charleston Air Force Base, SC) and were completed in May 1973. The C 5A became operational in 1970, and from July of that year was flying regular trips to Southeast Asia and Europe; it was utilized extensively during the Vietnam war for rapid transport of heavy equipment. In 1978, a total of 77 still remained in the MAC inventory of the 81 aircraft built. These were in service with the 60th, 436th, 437th, and 443rd Military Airlift Wings, based at Travis Air Force Base, California; Dover, Delaware; Charles¬ton, South Carolina; and Altus, Oklahoma.
Throughout the 1970s, the Galaxy remained the world’s largest military transport aircraft, being almost as large and heavy as the later model Boeing 747 Jumbo jets. Lockheed has calculated that, if required by the USAF, it is capable of being optimized for payloads even greater than the present 100227 kg (220964 1b) maximum, without increasing the maximum takeoff weight.
These aircraft have been put to invaluable use on non military mercy missions to disaster stricken areas such as the floods in Chile in 1974 and those in Pakistan. Much needed equipment and supplies were taken to earthquake ravaged Nicaragua by Galaxy aircraft, and in early 1977 and 1978 they were used to ferry snow¬clearing equipment to several areas within the United States.
In the mid-1970s, wing cracks were found throughout the fleet. Consequently, all C-5A aircraft were restricted to a maximum of 50,000 pounds (22,680kg) of cargo each. To increase their lifting capability and service life, 77 C-5As underwent a re-winging program from 1981 to 1987. (In the redesigned wing, a new aluminum alloy was used that didn’t exist ten years prior.) The final re-winged C-5A was delivered in July 1986.
In January 1981 a C-5A at snow covered Griffiss Air Force Base a C-5A performed more exhaustive ground maneuvers on unprepared ‘off-runway’ surfaces, including taxiing, towing and cargo off-loading at gross weights from 425,000 to 665,000 lb. The tests were conducted by the Air Force Test and Evaluation Center, Kirkland AFB, New Mexico.
Some C-5s were transferred to the Air Reserve components starting with Kelly AFB, Texas, in 1985; followed by Stewart Air National Guard Base, NY; and Westover Air Reserve Base, MA.
In December 1985 Lockheed was awarded a contract to design a new wing for the Galaxy, increasing maximum take-off weight from 348,810kg to 379,660kg. By the end of 1986, 68 rewinged C-5As had been returned to service, and the 77-strong fleet was scheduled for completion by mid-1987. C-5Bs have the same wing, improved General Electric TF39 turbofans, updated avionics, and better fatigue and corrosion resistance.
C-5B
Two C-5As modified to carry outsized space cargoes as C-5Cs.
On 17 April 1989 Lockheed delivered its final C-5B to the USAF.
C-5 engines were upgraded as C-5M, from four General Electric TF-39 engines to General Electric CF6-80C2-L1F (F-138) commercial engines, which have 22 percent more thrust, a 30 percent shorter takeoff roll, and a 58 percent faster climb rate. June 2006 saw the first flight of the C-5M ‘Super Galaxy’ with a digital glass cockpit.
C-5A Galaxy Engines: 4 x GE TF-39-GE-1, 182.9kN / 41,000 lb Wing span: 222 ft 8.5 in (67.88 m) Wing area: 576.0 sq.m / 6200.01 sq ft Length: 247 ft 10 in (75.54 m) Height: 65 ft 1.5 in (19.85 m) Max TO wt: 764,500 lb (346,770 kg) Payload: 73pax, max 130950kg Max level speed: 571 mph (919 kph) Cruise speed: 871 km/h / 541 mph Service ceiling: 33802 ft / 10303 m Range w/max.fuel: 13472 km / 8371 miles Range w/max.payload: 5600 km / 3480 miles Take off distance : 12129 ft / 3697 m Landing distance : 4872 ft / 1485 m Crew: 6
C-5B Galaxy Engine: 4 x GE TF39 turbofan Installed thrust: 765 kN Wingspan: 67.9 m / 222 ft 9 in Height: 19.8 m / 65 ft 0 in Length: 75.5 m Wing area: 576.0 sq.m / 6200.01 sq ft Empty wt: 169,645 kg MTOW: 379,660 kg MLW: 288,630 kg Payload: 118,390 kg Max. speed: 920 km/h / 572 mph Cruise speed: 835 kph Initial ROC: 440 m / min Ceiling: 10,895 m T/O run: 2125 m Ldg run: 720 m Fuel internal: 193,640 lt Range with 118,390 kg payload: 5470 km Capacity: 75 pax Air refuel: Yes.
C-5M Super Galaxy Engines: 4 x GE CF6-80C2 turbofan Wingspan: 222.8 feet Length: 247.8 feet Height: 65.1 feet Empty weight: 400,000 lb Cargo capacity: 281,001 lb Cruise speed: Mach 0.77 Un-refuelled range: 5,524 sm (4,800 nm) with 120,000 lb of cargo Un-refuelled range: 7,000 nm no cargo