Nonstop flight route between Geilenkirchen, North Rhine-Westphalia, Germany and Hollis, Alaska, United States:

About this route:

A direct, nonstop flight between NATO Air Base Geilenkirchen E–3A Component (GKE), Geilenkirchen, North Rhine-Westphalia, Germany and Hollis Clark Bay Seaplane Base (HYL), Hollis, Alaska, United States would travel a Great Circle distance of 4,709 miles (or 7,578 kilometers).

A Great Circle is the shortest distance between 2 points on a sphere. Because most world maps are flat (but the Earth is round), the route of the shortest distance between 2 points on the Earth will often appear curved when viewed on a flat map, especially for long distances. If you were to simply draw a straight line on a flat map and measure a very long distance, it would likely be much further than if you were to lay a string between those two points on a globe. Because of the large distance between NATO Air Base Geilenkirchen E–3A Component and Hollis Clark Bay Seaplane Base, the route shown on this map most likely appears curved because of this reason.

Try it at home! Get a globe and tightly lay a string between NATO Air Base Geilenkirchen E–3A Component and Hollis Clark Bay Seaplane Base. You'll see that it will travel the same route of the red line on this map!

Departure Airport Information:

Arrival Airport Information:

Facts about NATO Air Base Geilenkirchen E–3A Component (GKE):

• Since that time, most of the buildings on base have been renovated to present day standards and several new buildings have been erected.
• Following NATO’s decision to establish the NATO Airborne Early Warning & Control Force program and to make the base near Teveren the Main Operating Base of the E­3A Component, a major construction program was started in 1980 to modify the operational and support facilities.
• E-3A Component flying operations began in February 1982 after delivery of the first E­3A aircraft.
• An Economic Impact Study compiled by the NATO E-3A Component shows a 2008 economic impact of 275.8 million euro within a 200-kilometer radius of the base.
• The furthest airport from NATO Air Base Geilenkirchen E–3A Component (GKE) is Chatham Islands (CHT), which is located 11,929 miles (19,198 kilometers) away in Waitangi, Chatham Islands, New Zealand.
• The closest airport to NATO Air Base Geilenkirchen E–3A Component (GKE) is Merzbrück Airfield (AAH), which is located only 11 miles (18 kilometers) SSE of GKE.
• The Component’s multinational, fully integrated workforce consists of more than 3,000 military and civilian personnel from 16 NATO member nations.
• Because of NATO Air Base Geilenkirchen E–3A Component's relatively low elevation of 296 feet, planes can take off or land at NATO Air Base Geilenkirchen E–3A Component at a lower air speed than at airports located at a higher elevation. This is because the air density is higher closer to sea level than it would otherwise be at higher elevations.
• NATO Air Base Geilenkirchen E–3A Component (GKE) currently has only 1 runway.
• Surrounded by farmland and a natural woodland reserve, the base was originally built by the Royal Air Force after World War II and operated as RAF Geilenkirchen from 1953 onwards.

Facts about Hollis Clark Bay Seaplane Base (HYL):

• Hollis Clark Bay Seaplane Base is a state owned, public use seaplane base located one nautical mile northeast of the central business district of Hollis, a community in the Prince of Wales-Hyder Census Area in the U.S.
• The furthest airport from Hollis Clark Bay Seaplane Base (HYL) is Port Alfred Airport (AFD), which is located 10,631 miles (17,108 kilometers) away in Port Alfred, South Africa.
• The closest airport to Hollis Clark Bay Seaplane Base (HYL) is Thorne Bay Seaplane Base (KTB), which is located only 14 miles (23 kilometers) NNE of HYL.
• Hollis Clark Bay Seaplane Base (HYL) currently has only 1 runway.
• Because of Hollis Clark Bay Seaplane Base's relatively low elevation of 0 feet, planes can take off or land at Hollis Clark Bay Seaplane Base at a lower air speed than at airports located at a higher elevation. This is because the air density is higher closer to sea level than it would otherwise be at higher elevations.