Tag Archives: Hydrogen Balloon

8–11 February 1914

This photograph was taken during the Gordon Bennett Cup race, 12 October 1913. On of the men in the photo is identified as Hans Rudolph Berliner. Unfortunately, the source does not say which one. (Bibliothèque nationale de France)
This photograph was taken before the start of the VIII° Gordon Bennett Cup race, 12 October 1913. The source names Hans Berliner and his co-pilot, Mann, but unfortunately does not say which is which. According to his grandson, Mikael Manstrom, Berliner is the man just to the left of center. (Bibliothèque nationale de France)

8–11 February 1914: Aeronaut Hans Rudolph Berliner and two others, Alexander Haase and A. Nicolai, departed Bitterfeld, Germany, aboard Berliner’s gas balloon. They were carried across the Baltic Sea and into Russia. After encountering rain storms, gale force winds and howling wolves, their balloon came to rest in deep snow near the town of Kirgischan in the Ural Mountains.

In 47 hours, the men had traveled 3,052.7 kilometers (1,896.9 miles), setting a Fédération Aéronautique Internationale (FAI) World Absolute Record for Distance.¹ This record remained unsurpassed until 1978.

Hans Berliner’s balloon was described as being spherical and painted yellow. It had a volume of 2,250 cubic meters (79,458 cubic feet) and was inflated with hydrogen. Prior to this flight, the balloon had made more than 50 ascents.

The New York Times reported:

BALLOON DISTANCE RECORD

German Pilot Berliner Reached a Point in the Ural Mountains.

BERLIN, Feb. 16.—The German balloon pilot Hans Berliner, who ascended with two passengers on Feb. 8 in his spherical balloon, telegraphed to-day from Kirgischan, in the Ural Mountains, that he had landed near there after a forty-seven-hour flight from Bitterfield.

The flight, it is understood, broke the distance record but not the duration record.

Berliner had been unable to reach a telegraph office until to-day.

The flight of Berliner’s balloon extended considerably further than that of Dr. Korn, who, after ascending last week at Bitterfield, landed at Krasno Ufimsk, 110 miles southeast of Perm, Russia.

The New York Times, 17 February 1914.

The Russian government charged the three Germans with espionage and sentenced them to six months solitary confinement and a fine. They were released on 8 May 1914 and allowed to return to Germany. The balloon was also returned.

¹ FAI Record File Number 10605

© 2019, Bryan R. Swopes

7 January 1785

Balloon Leaving Dover, Jean-Pierre François Blanchard and Dr. John Jeffries depart Dover, 7 January 1785, by E.W. Cocks, oil on canvas, ca. 1840 (Science Museum, London)
Balloon Leaving Dover, Jean-Pierre François Blanchard and Dr. John Jeffries depart Dover, 7 January 1785, by E.W. Cocks, oil on canvas, ca. 1840 (Science Museum, London)

7 January 1785: On a clear, calm day, Jean-Pierre François Blanchard and Doctor John Jeffries flew across the English Channel in a hydrogen-filled balloon. They lifted off from Dover Castle, Kent, England at about 1:00 p.m. The journey to Guînes, Pas-de-Calais, France, took about two and a half hours.

The balloon was approximately 8.2 meters (27 feet) in diameter. A gondola was suspended beneath the gas envelope, equipped with oar-like devices that were intended to steer and propel the light-than-air craft.

With sufficient buoyancy to just lift the two aeronauts and their equipment, the Channel crossing was made at a very low altitude. During the flight, all ballast, their equipment and most of their clothing were jettisoned. They crossed the French coast at about 3:00 p.m. and at 3:30, came to rest in a clearing in the Felmores Forest, near Guînes.

Balloon Arriving at Calais, by E.W. Cocks, oil on canvas, ca. 1840 (Science Museum, London)
Balloon Arriving at Calais, by E.W. Cocks, oil on canvas, ca. 1840 (Science Museum, London)

© 2017, Bryan R. Swopes

31 July 1901

(Bröckelmann (Hrsg): Wir Luftschiffer, Ullstein, 1909)

31 July 1901: At “10 minutes before 11 in the morning,” the gas balloon Preussen (Prussia) began to ascend from Tempelhofer Felde at Berlin, capital city of the Königreich Preußen (Kingdom of Prussia) and the German Empire.

Reinhard Joachim Süring, 1907

Carried aloft in the open gondola were two men, Reinhard Joachim Süring of the Prussian Meteorological Institute, and Josef Arthur Stanislas Berson.

There was a light wind from the northwest, and the air temperature was 23.4 °C. (74.1 °F.). The air pressure was 762.0 millimeters (30.0 inches) of Mercury.

The balloon was made by Continental Caoutchouk und Guttapercha-Compagnie, Hannover, at a cost of 20,000ℳ. To inflate the balloon at the airfield, 1,080 pressurized cylinders containing 5,400 cubic meters (190,700 cubic feet) of hydrogen were used. When fully inflated at altitude, the spherical envelope had a maximum volume of 8,400 cubic meters (296,643 cubic feet).

Josef Arthur Stanislas Berson, 1901

In the gondola were four 1,000 liter (35 cubic foot) cylinders of oxygen for breathing, and 8,000 kilograms (17,637 pounds) pounds of ballast contained in 63 kilogram (139 pound) sand bags and 36 kilogram (79 pound) bags of iron filings.

Süring and Berson reached an altitude of 5,000 meters (16,404 feet) in 40 minutes. The air  temperature was -7 °C. (19.4  °F.). The envelope had reached its maximum volume by this time.

After 3 hours, Preussen had ascended to 8,000 meters (26,247 feet), and in four hours, it reached 9,000 meters (29,528 feet). There, the air temperature was -32 °C. (-25.6 °F.).

The aeronauts had run out of breathing oxygen at 8,170 meters (26,804 feet).

The last observed altitude the men reached was 10,225 meters (33,547 feet), with an air temperature of -35.7 °C. (-32.3 °F.). Josef Berson saw Süring lose consciousness and pulled the emergency valve to vent gas from the balloon and start its descent. He too lost conciousness due to hypoxia.

“. . . dass der Ballon noch kurz nachdem auch der zweite Korbinsasse bei 10500 m das Bewussstein verloren hatte, um mindestens 300 weitere Meter stieg, sonit Maximalhöhe von sicherlich 10800 m (vielleicht 11000 m) erreicht und hierauf unfer Nachwirkung des Ventilzuges in ein jahes Fallen umbog.

[Google English translation: “Shortly after the second basket occupant had lost the awareness stone at 10500 m, the balloon rose at least 300 meters further, reaching a maximum height of certainly 10800 m (perhaps 11000 m), and then reversed our after-effect of the valve train into a sudden fall.]

Both men regained consciousness at about 6,000 meters, but were unable to regain control of the ballon’s descent until 2,500 meters. Süring and Berson returned to Earth near Briesen, Kreis Cottbus, Germany, at 18:25 that evening. The total duration of their flight was 7 hours, 36 minutes.

© 2019, Bryan R. Swopes

14 July 1897

The hydrogen balloon Örnen (Eagle) on the polar ice cap, 14 July 1897. (Nils Strindberg)

14 July 1897: At 8:11 p.m., G.M.T., the Andrée Arctic Expedition’s hydrogen gas balloon, Örnen (Eagle), came to rest on an ice floe in the Arctic Ocean, at N. 82° 52′, E. 29° 32′. ¹ This was the end of a planned transpolar flight and the beginning of a three-month struggle for survival.

Balloon Örnen (Eagle) in its protective enclosure, Danes Island, Spitzbergen, Norway. (Andréemuseet, Griänna, Sweden)

At 1:50 p.m., 11 July 1897, Örnen rose from its protective enclosure on Danskøya (Danes Island) in the Svalbard Archipelago of Norway. Carried aloft in the balloon’s gondola were the expedition’s leader, Salomon August Andrée, and his fellow explorers, Knut Hjakmar Ferdinand Frænkel and Nils Strindberg.

Intrepid aeronauts: Left to right, Gustav Vilhem Emanuel Swedenborg (alternate); Nils Strindberg; Knut Hjakmar Ferdinand Frænkel; Salomon August Andrée (seated). (Andréemuseet, Griänna, Sweden)

The goal of the expedition was to fly across the North Pole and onward to Alaska on the North American Continent. Andrée considered that the balloon would need to retain enough gas during the voyage to remain airborne for 30 days. Supplies for the three men for that period were carried. 36 homing pigeons would allow the explorers to report their progress to the outside world.

This would be the expedition’s second attempt. The previous year, adverse winds forced the aeronauts to abandon the flight.

Balloon Örnen in its protective enclosure, Danes Island, Spitzbergen, Norway. (Andréemuseet, Griänna, Sweden)
Henri Lachambre

Örnen had been designed and manufactured by Henri Lachambre at his balloon factory at Vaugirard, a suburb on the Left Bank of the Seine, Paris, France. The envelope was assembled from approximately 3,360 pieces of a thin woven Chinese silk fabric called pongee, stitched by hand. The seams were covered by glued strips of pongee. The upper two-thirds of the gas bag had three layers of fabric, while the lower one-third had two plies. It is estimated that 8 million stitches were required. Once completed, the envelope was covered with varnish.

The gondola was constructed of wood and wicker. It had an upper, observation, deck, and an enclosed lower sleeping quarters/darkroom.

A net made of more than 300 hemp ropes covered the balloon, and were braided into twelve ropes which were attached to a lifting ring. The gondola was suspended below this. At Sea Level, the inflated balloon with its gondola were approximately 97 feet (29.6 meters) high, and 68 feet (20.7 meters) in diameter. Its total volume is estimated at 4,800 cubic meters (approximately 170,000 cubic feet).

Buoyancy was provided by hydrogen gas which was produced on site at Danskøya. Hydrogen is the lightest element, and gaseous hydrogen has just 7% of the density of air. This provides greater buoyancy for lighter-than-air vehicles than other gases, but hydrogen gas molecules are also the smallest and they diffuse through fabric barriers more easily than any other gas. (Tests before Örnen was launched found that the balloon was losing about 35 cubic meters/1,236 cubic feet of hydrogen each day.)

Balloons have a disadvantage in that they go where the wind takes them. They are not steerable like dirigibles. So, steady southerly winds would be needed to carry Örnen to the North Pole, and northerly winds to travel from there to Alaska. Andrée had a theory that he believed would allow him to steer his balloon as much as 30° to either side of the prevailing wind.

Andrée’s idea was that if several long, heavy ropes were dragged behind the balloon, their weight and friction would cause the balloon to travel slower than the wind was blowing. He could then use two small sails to steer.

Örnen with guide ropes dragging in the water.

Also, these ropes could be used to control the balloon’s altitude. By pulling the ropes in, the weight supported by the balloon would increase, and it would descend. Letting more rope out would mean that the extra weight would be transferred to the surface, and the balloon would rise.

Altitude was critical. Andrée planned to maintain about 150 meters (approximately 500 feet). As the balloon ascended, atmospheric pressure on the envelope decreased. The pressure differential between the atmosphere and the hydrogen would increase, forcing the hydrogen to pass through the envelope more quickly. Any hydrogen loss was permanent, and the balloon’s buoyancy would decrease.

Balloon Örnen airborne, around 2:00 p.m., 11 July 1897. The wake of the steering ropes can be seen on the surface of the sea. (Andréemuseet, Griänna, Sweden)

Problems began immediately. As the guide ropes dragged through the water, they became heavier. They pulled the balloon down to the surface and the gondola actually touched the water. The aeronauts frantically began dumping ballast. Three of the four ropes became entangled and were pulled loose. Örnen began to rise again, but having lost ballast and the weight of the three guide ropes, it climbed to about 1,600 feet (490 meters). The loss of hydrogen accelerated.

The Eagle floated northward above a fog bank. It sank into the fog and sunlight shining on the envelope decreased. The balloon cooled and the gas inside began to contract. Buoancy decreased and the balloon sank further into the fog.

An alternating pattern of rising and falling developed. After the explorers passed into the Arctic ice pack, the gondola would alternately bounce across the broken ice, then rise again into the sky. At about 10:00 p.m., July 12, the gondola settled on to the ice and remained there for the next thirteen hours.

At 10:55 a.m., 13 July, once again airborne, the balloon continued on its flight. Drizzle and fog caused ice to form on the envelope. The gondola dragged behind. After jettisoning hundreds of pounds of ballast and equipment, Örnen rose higher, but again settled toward the ice. The remaining guide rope was lost. Realizing that the end of the flight was inevitable, the crew opened to valves to release the hydrogen. The balloon settled to the ice, and at 8:11 p.m., 14 July 1897, the crew climbed down from the gondola onto the ice floe.

Örnen on the arctic ice, 14 July 1897 (Nils Strindberg)

The total elapsed time of the journey was 65 hours, 35 minutes. In that time, Andrée, Frænkel and Strindberg had traveled 295 miles (475 kilometers) from their starting point on Danskøya.

The next three months were a courageous battle for survival as the three explorers tried to make their way back to civilization. They reached Kvitøya (White Island), an ice-covered island at the northeast of the Svalbard Archipelago. Andrée’s final journal entry was made on 17 October.

The bodies of the three men were discovered in 1930. Their remains were taken to Sweden.

There is much speculation as to the cause of their deaths, ranging from exposure, exhaustion, illness, suicide, or bear attack.

Track of the 1897 Andrée Arctic Expedition.

The expedition left behind journals with detailed meteorological data and other observations. More than 200 photographic images were left on film negatives protected in metal canisters.

The 1897 Andrée Arctic Expedition is the subject of books, newspaper and magazine articles, at least one motion picture, as well as many Internet articles of varying detail. The images taken by Nils Strindberg are available on the Internet and tell of their experiences.

Salomon August Andrée (18 October 1854–1897)

¹ Geographic location of Örnen‘s landing site from the Comité International d’Aérostation (CIA, the Fédération Aéronautique Internationale Ballooning Commission).

© 2018, Bryan R. Swopes

29 May–1 June 1862

Thaddeus Lowe ascends in the balloon Intrepid during the Battle of Seven Pines, 1 June 1863. (Matthew Brady) Library of Congress LC-B811-2348

29 May–1 June 1862: Thaddeus Sobieski Constantine Lowe, commanding the civilian Union Army Balloon Corps, relayed observations of enemy troop movements, both vocally and by telegraph, from the gondola of a hydrogen balloon which was moored on the north side of the Chickahominy River of eastern Virginia during the Battle of Seven Pines, which took place during the American Civil War (1861–1865).

Having been appointed Chief Aeronaut by President Lincoln, Lowe had previously performed aerial reconnaissance at the First Battle of Bull Run, 21 July 1861. He was also present at the battles of Sharpsburg and Fredericksburg.

Thaddeus S.C. Lowe, 1865. (Library of Congress)
Thaddeus Sobieski Constantine Lowe, 1865. (Library of Congress)

© 2018 Bryan R. Swopes