National Mall
Early Flight
15 reading stories
Enter the experience →Blériot XI
The Blériot XI first appeared in 1909 and became a widely used monoplane. Other companies licensed the design, armies used it, and some people built versions themselves. The XI used a tractor propeller, wire-braced structure, wing warping, and a light uncovered rear fuselage. Later versions grew stronger and heavier as missions and expectations changed.
Read the story →Clement V-2 Engine
This small V-2 engine powered Santos-Dumont's No. 9 airship. It was light enough to carry into the air and strong enough to turn a propeller and a blower. The V-2 drove the propeller and a belt-powered blower that pressurized a separate air bag inside the hydrogen envelope. Power had to be divided between moving the airship and maintaining its shape.
Read the story →Curtiss B-8 V-8 Engine
A Curtiss B-8 powered the June Bug in sustained flight. This air-cooled engine was later used in an experimental seaplane. The V arrangement made a compact 40-horsepower engine, while air cooling reduced plumbing and coolant mass. Cylinder temperature and airflow still had to remain within safe limits.
Read the story →Curtiss D-III Headless Pusher
Early Curtiss pushers often carried an elevator in front. This D-III is called headless because that unnecessary forward surface was removed, while the engine and propeller remained behind the pilot. Curtiss exhibition teams used aircraft like the D-III at meets and celebrations. Pilots, builders, and audiences could compare performance while the design evolved through practical experience.
Read the story →Early Wright Aircraft
The Wright brothers built gliders before powered airplanes and kept improving their machines after 1903. By 1905 they had an airplane that could make controlled, sustained flights and return near its starting point. The Wright sequence moved from kite and glider experiments to powered aircraft and practical repeated flight. Each machine turned unresolved questions into the next set of tests.
Read the story →Ecker Flying Boat
Herman Ecker first built his airplane with wheels, then added pontoons, and finally rebuilt it as a flying boat. Each change let the aircraft operate from a different surface. Moving from wheels to pontoons and then a hull affected mass, drag, balance, spray, structure, and propeller clearance. The design records adaptation through construction rather than a single finished concept.
Read the story →Gnome Omega Rotary 7 Engine
In this rotary engine, the seven cylinders turned around a fixed crankshaft. The spinning helped cool the engine while producing useful power for early airplanes. The 50-horsepower Gnome Omega placed seven air-cooled cylinders around the shaft. Rotation improved cooling and power-to-weight performance, but moving mass also affected lubrication, fuel use, torque, and aircraft handling.
Read the story →La Minerve
La Minerve shows what an aerial traveler might want: rooms, supplies, decks, and a grand balloon to lift everything. It turns the dream of flight into a complete traveling world. The sculpture is based on an 1820 image by balloonist and showman Étienne-Gaspard Robert. Its hybrid design combines known shipboard systems with speculative aerial lift, revealing how inventors often begin by rearranging familiar ideas.
Read the story →Langley Aerodrome No. 5
Launched from a houseboat on May 6, 1896, Aerodrome No. 5 made two sustained powered flights. It showed that a heavier-than-air machine of useful size could keep flying under its own power. The steam-powered Aerodrome was catapulted into the air from the Potomac River. Its flights tested whether propulsion and aerodynamic stability could sustain a free-flying machine after launch.
Read the story →Lilienthal Standard Glider
Otto Lilienthal controlled this glider by shifting his body. Repeated flights—some longer than 900 feet—helped him learn how wings and air interact. Lilienthal combined aerodynamic study with repeated piloted glides. The light structure had to create lift while responding predictably when the pilot moved the center of gravity.
Read the story →Model of Santos-Dumont Airship No. 9
Alberto Santos-Dumont built No. 9 as his smallest airship. Unlike a free balloon, it had an engine, propeller, rudder, and gondola so a pilot could choose a direction. Hydrogen in the envelope supplied buoyant lift while a lightweight engine and propeller supplied motion. The gondola, rigging, and rudder had to remain light without becoming too fragile.
Read the story →Stringfellow Steam Engine
John Stringfellow built this small steam engine when flight needed power without the weight of a factory engine. Its strong power for its mass won a prize in 1868. The engine produced about one horsepower while weighing about thirteen pounds. Early aircraft designers had to count the engine, fuel, water, structure, and transmission in the total mass available for lift.
Read the story →Tiny Broadwick's Parachute
Georgia 'Tiny' Broadwick began parachuting from balloons and became the first woman to parachute from an airplane in 1913. Her nickname described her size, not her courage or skill. A parachute must remain secure until needed, release cleanly, unfold without tangling, inflate, and slow a person before landing. Broadwick's demonstrations helped make emergency escape from aircraft imaginable.
Read the story →Wright 6-70 Inline 6 Engine
The Wright Company added a throttle and flexible flywheel drive to this six-cylinder engine. A pilot could change engine speed in flight instead of treating power as simply on or off. The water-cooled 6-70 produced about 70 horsepower at 1,400 rpm. Throttle control and a flexible drive helped connect changing engine output to the propeller system and aircraft mission.
Read the story →Wright Military Flyer
The Army accepted this Wright airplane in 1909. Wilbur Wright used it to teach the first three American military aviators, making training part of the new technology. The Wrights returned to Fort Myer to complete tests after the fatal 1908 crash. The Army evaluated whether the aircraft could meet defined speed, endurance, passenger, and operating needs.
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