Tag Archives: Wright Field

23 August 1937

Captain Carl J. Crane, Captain George V. Holloman and Mr. Raymond K. Stout with the C-14B, 31-381. (United States Air Force 090176-F-1234K-007)

23 August 1937: The first completely automatic landing of an airplane took place at Patterson Field, near Dayton, Ohio. With Captain George Vernon Holloman in the cockpit, and Captain Carl Joseph Crane and Mr. Raymond K. Stout in the cabin, a Fokker Y1C-14B, Army serial number 31-381, departed Wright Field then automatically intercepted a series of four radio beacons, initiated a descent, and landed at nearby Patterson Field and braked to a stop, all without any input from the pilot.

The two military officers were each awarded the Distinguished Flying Cross and the Mackay Trophy.

14 October 1938. Secretary of War Harry Hines Woodring (left) pins gold medal on Carl J. Crane (center) and George V. Holloman (right). “War Secretary presents Army Flyers with Mackay Trophy. Washington, D.C. Oct. 14.” (Library of Congress)

The President of the United States of America, authorized by Act of Congress, July 2, 1926, takes pleasure in presenting the Distinguished Flying Cross to Captain (Air Corps) George V. Holloman, U.S. Army Air Corps, for extraordinary achievement while participating in aerial flights in connection with the design and development of the airplane automatic landing system which made possible the first complete automatic airplane landing in history. Over the period of two years during which this system was under development, Captain Holloman, with utter disregard of his personal safety, performed virtually all of the great amount of flight testing which was required for the numerous items of equipment which go to make up the complete automatic landing assembly, and when finally on 23 August 1937, the first experimental automatic landing flights were made, he was in the cockpit of the airplane used for this purpose. The engineering skill, judgment, and resourcefulness displayed by Captain Holloman, and his courage in performing hundreds of test flights with highly experimental equipment, contributed largely to the ultimate successful development of the automatic landing system.

General Orders: War Department: American Decorations, 1940 (Supplement IV-1940)

Action Date: August 23, 1937

Service: Army Air Forces

Rank: Captain

A contemporary aviation publication stated:

After two years of research and preparation daring pilots and engineers of the Army Air Corps in 1937 began to make automatic “blind” landings without any control from the occupants of the airplane or observers on the surface. On Monday, August 23, a day when the air was bumpy and the wind decidedly adverse, a big Army plane swung over the horizon near Wright Field, at Dayton, O., and glided straight down on the runway, rolling a few yards and then coming to a stop as if it had been at all times in the hands of an expert pilot. But nobody had anything to do with this landing; There were three men in the Army’s cargo plane, and they were the three experts who had developed the apparatus. Like true scientists they had gone up and come down on this test to see for themselves just how their creation would work. . . .

The AIRCRAFT YEAR BOOK FOR 1938, Howard Mingos, Editor, Aeronautical Chamber of Commerce of America, Inc., New York, 1938, Chapter II at Pages 43–50

Diagram from Patent Application No. US358438A

The automatic landing system used a barometric altimeter, a radio compass and Sperry Autopilot. The pilot would fly the airplane to a predetermined altitude at a distance greater than 20 miles (32 kilometers) from the airfield. When the system was activated, the airplane automatically maintained this altitude and turned toward the outermost beacon. (Turns of up to 180° were demonstrated.)

As the airplane passed over each of the three outer beacons, the radio compass frequency would change to that of the next successive beacon, and the airplane homed in on it. Coupled with the altimeter, the system prevented the airplane from descending below the minimum altitude until it had passed the innermost beacon.

When passing over the innermost beacon, the engine was automatically throttled back to begin a controlled descent. It then set the throttle to maintain a preset rate of descent and glide slope angle until ground contact was made. Switches in the landing gear signaled the system to bring the engine to idle and apply the brakes.

During testing all of the landings were made with a crosswind.

Y1C-14B (U.S. Air Force 097014-F-1234K-035)

The Fokker Y1C-14B was a variant of the F-14 commercial transport. It was a single-engine parasol-wing monoplane with conventional fixed landing gear. The airplane was flown by a single pilot in an open cockpit and could carry up to six passengers in its enclosed cabin. It was 43 feet, 3 inches (13.183 meters) long, with a wingspan of 59 feet, 0 inches (17,983 meters) and height of 12 feet, 0 inches (3.658 meters). The airplane’s maximum takeoff weight was 7,341 pounds (3,330 kilograms).

Fokker Y1C-14B 31-381, Wright Field. (United States Air Force 050406-F-1234P-036)

The Y1C-14B differed from the C-14A with the installation of an air-cooled, 1,690.537-cubic-inch-displacement (27.703 liters) Pratt & Whitney R-1690-5 nine-cylinder radial engine. This engine was direct-drive and had a compression ratio of 5:1. Burning 73-octane gasoline, it was rated at 525 horsepower at 1,900 r.p.m. at Sea Level. The R-1690-5 was 3 feet, 8.78 inches (1.137 meters) long, 4 feet, 6.43 inches (1.383 meters) in diameter and weighed 850 pounds (386 kilograms). This engine was sold commercially as the Pratt & Whitney Hornet A2.

Y1C-14B (U.S. Air Force 097014-F-1234K-036)

The Y1C-14B had a cruise speed of 133 miles per hour (214 kilometers per hour) and maximum speed of 150 miles per hour (241 kilometers per hour). The service ceiling was 14,300 feet (4,359 meters). Its range was 675 miles (1,086 kilometers).

Atlantic Aircraft Y1C-14B (U.S. Air Force 097014-F-1234K-037)

© 2019, Bryan R. Swopes

17 August 1946

Sergeant Lawrence Lambert is ejected from a P-61B Black Widow, 17 August 1946. (U.S. Air Force)
Sergeant Lawrence Lambert is ejected from the Northrop XP-61B Black Widow, 17 August 1946. (U.S. Air Force)

17 August 1946: First Sergeant Lawrence Lambert, U.S. Army Air Forces, was the first person to eject from an aircraft in flight in the United States.

Lambert was assigned to the Air Material Command Parachute Branch, Personal Equipment Laboratory. He was an 11-year veteran of the Air Corps. During World War II, he served in the Asiatic-Pacific Theater. Previous to this test, Lambert had made 58 parachute jumps.

The test aircraft was a modified Northrop P-61B-5-NO Black Widow night fighter, 42-39498,¹ redesignated XP-61B. The airplane was flown by Captain John W.McGyrt and named Jack in the Box.

The ejection seat was placed in the gunner’s position, just behind and above the Black Widow’s pilot. A 37 mm cartridge fired within a 38 inch (0.97 meter) long gun barrel launched the seat from the airplane at approximately 60 feet per second (18.3 meters per second). Lambert experienced 12–14 Gs acceleration.

Flying over Patterson Field at more than 300 miles per hour (483 kilometers per hour) at 6,000 feet (1,829 meters), Lambert fired the ejection seat. He and the seat were propelled approximately 40 feet (12 meters) above the airplane. After 3 seconds, he separated from the seat, and after another 3 seconds of free fall, his parachute opened automatically. Automatic timers fired smaller cartridges to release Lambert from the seat, and to open the parachute.

He later said, ” ‘I lived a thousand years in that minute,” before the pilot, pulled the release. . . ‘ Following the successful jump, blue-eyed, sandy-haired Sgt. Lambert expressed only one desire: To ‘get around the biggest steak available.’ “

Dayton Daily News, Vol. 70, No. 26, Sunday, 18 August 1946, Society Section, Page 10, Columns 4–6

Sergeant Lawrence parachuted safely. He was awarded the Distinguished Flying Cross. His citation read:

First Sergeant Lawrence Lambert, Air Corps, 6653991, for extraordinary achievement in aerial flight as a volunteer for the test of human ejection from a high speed aircraft, 17 August 1946. His courageous in the face of unknown factors that might have caused serious injury or loss of life, has contributed immeasurably to aeronautical and medical knowledge of the ejection method of escape from the aircraft.

Air Force Enlisted Heritage Institute, AFEHRI File 19–10

Sergeant Lambert also won the Cheney Award, “for an act of valor, extreme fortitude or self-sacrifice in a humanitarian interest, performed in connection with aircraft, but not necessarily of a military nature.” The medal was presented to him by General Carl A. Spaatz, in a ceremony held at Washington D.C., 15 April 1947.

Master Sergeant Lambert was later involved in rocket sled tests with Colonel John P. Stapp, M.D., Ph.D.

¹ Another source states 42-39489, however, according to Joe Baugher’s serial number web site, this airplane was “condemned to salvage Jul 19, 1945”

© 2017, Bryan R. Swopes

25 May 1927

1st Lieutenant James H. Doolittle, United States Army Air Corps, at the 1929 Cleveland National Air Races. Jimmy Doolittle is seen in this photograph sitting on the turtle deck of the Curtiss P-1C Hawk. (National Air and Space Museum)

25 May 1927: At Wright Field, now Wright-Patterson Air Force Base, Dayton, Ohio, First Lieutenant James H. “Jimmy” Doolittle, United States Army Air Corps, was the first pilot to successfully perform an outside loop.

Flying a Curtiss P-1B Hawk pursuit, he began the maneuver in level flight at 10,000 feet (3,048 meters), then pushed the nose down into a dive. When he reached 280 miles per hour (450 kilometers per hour), Doolittle continued to pitch the nose “down” and the airplane flew through a complete vertical circle, with the pilot’s head to the outside of the loop.

Lt. Jimmy Doolittle with a Curtiss P-1 Hawk, 4 February 1928. (NASM)
Lt. Jimmy Doolittle with a Curtiss P-1 Hawk, 4 February 1928. (National Museum of the United States Air Force)

Jimmy Doolittle attempted to repeat the outside loop at the 1929 Cleveland National Air Races, with a Curtiss P-1C Hawk, serial number 29-227. The airplane’s wings came off but Doolittle parachuted to safety. (The Curtiss P-1C used wing radiators instead of the large radiator under the nose of the P-1B. This substantially reduced the aerodynamic drag which allowed the airplane to accelerate to too high an airspeed during Doolittle’s maneuver.)

A crowd surrounds the wreckage of Jimmy Doolittle's Curtiss P-1C Hawk after it crashed during a demonstration at the 1929 Cleveland National Air Races. (Cleveland Press)
A crowd surrounds the wreckage of Jimmy Doolittle’s Curtiss P-1C Hawk after it crashed during an aerobatic demonstration at the 1929 Cleveland National Air Races. (Cleveland State University, Michael Schwartz Library, Special Collections, Cleveland Press Collection)

Jimmy Doolittle was one of America’s foremost pioneering aviators. He set many records, won air races, tested and developed new flying equipment and techniques. He was a highly-educated military officer, having earned his Bachelor of Arts from the University of California Berkeley School of Mines, and M.S and D.Sc. degrees in Aeronautical Engineering from the Massachusetts Institute of Technology. As a pioneer aviator, he won every international air race, and had been awarded every international aviation trophy. He was also the first pilot to fly completely by reference to instruments.

During the early days of America’s involvement in World War II, Lieutenant Colonel Doolittle planned and led the Halsey-Doolittle B-25 raid on Japan. He was awarded the Medal of Honor and promoted to brigadier general, and then placed in command of the Twelfth Air Force in North Africa. As a major general, he commanded the Fifteenth Air Force in the Mediterranean Theater of Operations. Lieutenant General Doolittle commanded the Eighth Air Force in England from January 1944 to September 1945. He supervised the transition of the 8th to the Boeing B-29 Superfortress and its eventual transfer to bases on Okinawa to continue the war against Japan. World War II came to an end before any of the 8th’s B-29s actually moved west.

Lieutenant General James H. Doolittle, U.S. Army Air Force (U.S. Army Photo C-2102)
Lieutenant General James H. Doolittle, U.S. Army Air Force (U.S. Army Photo C-2102)

After the war, Lieutenant General Doolittle was placed on the inactive list. On 4 April 1985, by Act of Congress, James H. Doolittle was promoted to General, United States Air Force, Retired.

General James Harold Doolittle is the only person to be awarded both the Medal of Honor and the Medal of Freedom. He died 27 September 1993 at the age of 96 years. He was buried at the Arlington National Cemetery, Arlington, Virginia.

Curtiss P-1B Hawk, A.C. 27-75. (U.S. Air Force)

The Curtiss P-1B Hawk was a single-engine, single-seat, single-bay biplane pursuit, an aircraft type now known as a fighter. The airplane and its D-12 Conqueror engine were both built by the Curtiss Aeroplane and Motor Co., Garden City, New York.

The P-1B was 22 feet, 10 inches (6.960 meters) long with an upper wingspan of 31 feet, 6 inches (9.601 meters). The lower wing had a span of 26 feet, 0 inches (7.925 meters), a narrower chord, and was staggered 3 feet, 2½ inches (0.978 meters) behind the upper. Both wings had significant taper with rounded tips. Their angle of incidence was 0°. The upper wing had no dihedral, while the inboard lower wing had 1°, and the outer, 5°. The total wing area was 252 square feet (23.4 square meters). The horizontal stabilizer span was 10 feet, 6.0 inches (3.200 meters) and its incidence could be adjusted from +3° to -1.5°. The vertical fin was offset 2° left of the airplane’s centerline. The overall height of the airplane was 8 feet, 10 inches (2.712 meters).

The P-1B had an empty weight of 2,105 pounds (955 kilograms), gross weight of 2,932 pounds (1,330 kilograms), and maximum weight of 3,562 pounds ( kilograms).

The P-1B was powered by a liquid-cooled, normally-aspirated, 1,145.1-cubic-inch-displacement (18.8 liter) Curtiss D-12D (V-1150-3) dual overhead cam (DOHC) 4-valve 60° V-12 engine with a compression ratio of 5.7:1. It was a direct-drive engine, rated at 415 horsepower at 2,000 r.p.m. at Sea Level, and 460 horsepower at 2,300 r.p.m. The D-12 was 58¾ inches (1.492 meters) long, 34¾ inches (0.883 meters) high and 28¼ inches (0.718 meters) wide. It weighed 680 pounds (308 kilograms). The P-1B was equipped with an aluminum Curtiss-Reed propeller with a diameter of 8 feet, 9 inches (2.667 meters).

The pursuit had a cruise speed of 127 miles per hour (204 kilometers per hour). Its maximum speed was 159.6 miles per hour (256.9 kilometers per hour) at Sea Level, and 157 miles per hour (253 kilometers per hour) at 5,000 feet (1,524 meters). It had a service ceiling of 21,400 feet (6,523 meters) and absolute ceiling of 22,900 feet (6,980 meters). Its range was 342 miles (550 kilometers).

The P-1B was armed with two fixed air-cooled Browning machine guns, one .50-caliber and one .30-caliber.

The Air Corps ordered 93 Curtiss P-1 Hawks between 1925 and 1929.

Doolittle flew a Curtiss Curtiss P-1A Hawk, 25-410, similar to the P-1B that Doolittle flew into an outside loop. (U.S. Air Force)
Curtiss P-1A Hawk, 25-410, similar in appearance to the P-1B that Doolittle flew into an outside loop. (U.S. Air Force)

© 2018, Bryan R. Swopes

19 May 1946

Lockheed P-80A-1-LO Shooting Star 44-85155, similar to the jet fighter which Major Bong was flying, 6 August 1945. (U.S. Air Force)
Lockheed P-80A-1-LO Shooting Star 44-85155, similar to the aircraft flown by 1st. Lt. J.J. Hancock, 19 May 1946. (U.S. Air Force)

19 May 1946: 1st Lieutenant John J. Hancock, 1st Fighter Group, U.S. Air Force, set a Fédération Aéronautique Internationale (FAI) World Record for Speed Over a Closed Circuit of 2,000 Kilometers (1,242.742 miles), flying a Lockheed P-80A Shooting Star. The average speed was 708.592 kilometers per hour (440.299 miles per hour).¹

The speed record was announced by General Carl A. Spaatz on 4 June 1948:

. . . Among the 20-odd new world records announced today by General Spaatz were two new marks for the 1,000 and 2,000 kilometers set by Lt. J.J. Hancock, who flew a P-80 at an average speed of 440 miles per hour on May 19. (Two thousand kilometers are approximately 1,242 miles.) The established route for 1,000 kilometers is from Wright Field to St. Louis and return. In breaking the record for 2,000 kilometers, Hancock traveled the course twice and also bettered the record for 1,000 kilometers. As noted in a forgoing paragraph the 1,000 kilometer record for this aircraft was broken only a few hours after General Spaatz’s announcement. [See TDiA, 4 June 1946]

One of the outstanding features of Hancock’s record was that the flight was made at 35,000 feet [10,668 meters] in inclement weather. He would not have been able to make the flight if radar had not been used. Flying on instruments, he was “talked around” the course by the Radar Group, who could follow him on their screen.

The Cincinnati Enquirer, Volume 106, No. 55, Tuesday, 4 June 1946, Page 9 at Column 2

The individual aircraft flown by Lieutenant Hancock while setting this record is not known.

Lockheed P-80A-1-LO shooting Star 44-85004, similar to the fighter flown by Lieutenant Hancock to set a world speed record. (U.S. Air Force)

The Lockheed P-80-1-LO was the United States’ first operational jet fighter. It was a single-seat, single engine airplane, designed by a team of engineers led by Clarence L. (“Kelly”) Johnson. The prototype XP-80A, 44-83020, nicknamed Lulu-Belle, was first flown by test pilot Tony LeVier at Muroc Army Air Field (now known as Edwards Air Force Base) 8 January 1944.

The P-80A was 34 feet, 6 inches (10.516 meters) long with a wingspan of 38 feet, 10.5 inches (11.849 meters) and an overall height of 11 feet, 4 inches (3.454 meters). It weighed 7,920 pounds empty (3,592.5 kilograms) and had a maximum takeoff weight of 14,000 pounds (6,350.3 kilograms).

Early production P-80As were powered by either an Allison J33-A-9 or a General Electric J33-GE-11 turbojet engine. The J33 was a licensed version of the Rolls-Royce Derwent. It was a single-shaft turbojet with a 1-stage centrifugal compressor section and a 1-stage axial-flow turbine. The -9 and -11 engines were rated at 3,825 pounds of thrust (17.014 kilonewtons). The were 8 feet, 6.9 inches (2.614 meters) long, 4 feet, 2.5 inches (1.283 meters) in diameter and weighed 1,775 pounds (805 kilograms).

The P-80A had a maximum speed of 558 miles per hour (898 kilometers per hour) at Sea Level and 492 miles per hour (801 kilometers per hour) at 40,000 feet (12,192 meters). The service ceiling was 45,000 feet (13,716 meters).

Several hundred of the early production P-80 Shooting stars had all of their surface seams filled, and the airplanes were primed and painted. Although this process added 60 pounds (27.2 kilograms) to the empty weight, the decrease in drag allowed a 10 mile per hour (16 kilometers per hour) increase in top speed. The painted surface was difficult to maintain in the field and the process was discontinued.

The P-80A Shooting Star was armed with six Browning AN-M2 .50-caliber (12.7×99 NATO) machine guns mounted in the nose.

John J. Hancock, 27th Fighter Squadron, 1st Fighter Group, made a belly landing in a P-80A, 44-85325, 3 miles north east of March Field, CA, 16 February 1947.

Two years later, 22 May 1948, Jackie Cochran broke Lieutenant Hancock’s record when she flew her green piston-engine North American Aviation P-51B Mustang, NX28388, to an average speed of 720.134 kilometers per hour (447.470 miles per hour) over a 2,000 kilometer course.²

¹ FAI Record File Number 8941

² FAI Record File Numbers 4479 and 12321

© 2017, Bryan R. Swopes

17 May 1942

Sikorsky XR-4 41-18874 at Wright Field, Ohio, 17 May 1942. (Sikorsky Historical Archives)
Vought-Sikorsky XR-4 41-18874 at Wright Field, Ohio, 17 May 1942. (Sikorsky Historical Archives)
The Sikorsky XR-4 41-18874 at Wright Field, 17 May 1942. Left to right: E. Walsh, A. Planefisch, Igor Sikorsky, Orville Wright, R. Alex, Les Morris, B. Labensky. (Sikorsky Archives)

17 May 1942: After a 761 mile (1,224.7 kilometer) flight over five days, test pilot Charles Lester (“Les”) Morris and Igor Sikorsky arrived at Wright Field, Dayton, Ohio, to deliver the U.S. Army’s first helicopter, the Vought-Sikorsky XR-4. Morris hovered directly up to the base administration building and landed there. He and Sikorsky were greeted by a large group of people which included Lieutenant Colonel Hollingsworth Franklin (“Frank”) Gregory, the Army’s designated rotorcraft expert, and pioneer aviator Orville Wright.

From the Sikorsky factory at Stratford, Connecticut, to Wright Field, Ohio, was 761 miles (1,224.7 kilometers), direct. Because of the XR-4’s low speed and short range (weight limitations restricted the quantity of gasoline it could carry) the distance was covered in sixteen separate flights with a total flight time of 16 hours, 10 minutes. The longest single flight lasted 1 hour, 50 minutes, a new world’s record for helicopter flight endurance. Igor Sikorsky joined Les Morris for the final leg of the flight.

Sikorsky test pilot Charles Lester (“Les”) Morris in the cockpit of an earlier version of the Vought-Sikorsky VS-300. (Hans Groenhoff Photographic Collection, Smithsonian Institution National Air and Space Museum NASM-HGC-1408)

The Vought-Sikorsky VS-316A (which was designated XR-4 by the U.S. Army Air Corps and assigned serial number 41-18874), established the single main rotor/anti-torque tail rotor configuration. It was a two-place helicopter with side-by-side seating and dual flight controls. The fabric-covered three-blade main rotor was 38 feet (11.582 meters) in diameter and turned counter-clockwise as seen from above. (The advancing blade is on the helicopter’s right). The three-blade tail rotor was mounted to the right of the tail boom in a tractor configuration, and rotated clockwise when seen from the helicopter’s left side. (The advancing blade was below the axis of rotation.)

The XR-4 was 33 feet, 11.5 inches (10.351 meters) long and 12 feet, 5 inches (3.785 meters) high. It weighed 2,010 pounds (911.7 kilograms) empty and the maximum gross weight was 2,540 pounds (1,152.1 kilograms).

The VS-316A had originally been powered by a 499.8-cubic-inch-displacement (8.19 liter) air-cooled Warner Aircraft Corporation Scarab SS-50 (R-500-1) seven-cylinder radial engine, rated at 145 horsepower at 2,050 r.p.m. In the XR-4 configuration, the engine was upgraded to an air-cooled, direct-drive 555.298-cubic-inch-displacement (9.100 liter) Warner Super Scarab SS185 (R-550-3) seven-cylinder radial engine with a compression ration of 6.20:1. The R-550-3 was rated at 185 horsepower at 2,175 r.p.m. at Sea Level, and 200 horsepower at 2,475 r.p.m (five minute limit) for takeoff. The engine was placed backwards in the aircraft with the propeller shaft driving a short driveshaft through a clutch to a 90° gear box and the transmission. The R-550-3 weighed 344 pounds (156 kilograms).

The XR-4 was redesignated XR-4C. This would be the world’s first production helicopter. It is at the Steven F. Udvar-Hazy Center of the Smithsonian National Air and Space Museum.

Vought-Sikorsky XR-4C 41-18874 at the National Air and Space Museum. (NASM)

© 2019, Bryan R. Swopes