Nonstop flight route between Seville, Spain and Bedford, Massachusetts, United States:

About this route:

A direct, nonstop flight between Seville Airport (SVQ), Seville, Spain and Laurence G. Hanscom Field (BED), Bedford, Massachusetts, United States would travel a Great Circle distance of 3,395 miles (or 5,464 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 Seville Airport and Laurence G. Hanscom Field, 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 Seville Airport and Laurence G. Hanscom Field. 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 Seville Airport (SVQ):

• The closest airport to Seville Airport (SVQ) is Jerez Airport (XRY), which is located 47 miles (76 kilometers) S of SVQ.
• The furthest airport from Seville Airport (SVQ) is Auckland Airport (AKL), which is nearly antipodal to Seville Airport (meaning Seville Airport is almost on the exact opposite side of the Earth from Auckland Airport), and is located 12,389 miles (19,939 kilometers) away in Mangere, New Zealand.
• Seville Airport (SVQ) currently has only 1 runway.
• In 1965 an Instrument Landing System was installed.
• In addition to being known as "Seville Airport", another name for SVQ is "Aeropuerto de Sevilla".
• Seville Airport handled 428,748 passengers last year.
• Because of Seville Airport's relatively low elevation of 112 feet, planes can take off or land at Seville Airport 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.
• In 1929 the first flight was operated between Madrid and Seville and in 1930, this was extended to the Canary Islands.

Facts about Laurence G. Hanscom Field (BED):

• In December 2006, pitcher Daisuke Matsuzaka held negotiations with the Boston Red Sox on board a private jet owned by John Henry.
• Hanscom is a critical part of the air transportation infrastructure for Massachusetts and the rest of New England.
• As an airport close to Boston, many teams competing in the Boston area use Hanscom Field.
• Federal Aviation Administration records say the airport had 8,385 passenger boardings in calendar year 2008, 7,350 in 2009, and 7,952 in 2010.
• Laurence G. Hanscom Field (BED) has 2 runways.
• In addition to being known as "Laurence G. Hanscom Field", another name for BED is "Hanscom Air Force Base".
• On August 8, 1962, a US Air Force KC-135 tanker crashed on approach to Hanscom Field's runway 11, destroying the aircraft and killing all three members of the flight crew.
• The furthest airport from Laurence G. Hanscom Field (BED) is Margaret River Airport (MGV), which is located 11,753 miles (18,914 kilometers) away in Margaret River, Western Australia, Australia.
• The closest airport to Laurence G. Hanscom Field (BED) is Boston Logan International Airport (BOS), which is located only 16 miles (26 kilometers) ESE of BED.
• From 1999 until 2003, Shuttle America, a Connecticut-based regional airline operating for US Airways Express, operated scheduled service from the airfield, carrying more than 10,000 passengers each month to airports in New York, New Jersey, and Pennsylvania using De Havilland Dash 8 and Saab 340 aircraft.
• Because of Laurence G. Hanscom Field's relatively low elevation of 132 feet, planes can take off or land at Laurence G. Hanscom Field 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.