Katastrofy a neštěstí 2010

Tento článek obsahuje seznam katastrof a neštěstí, které proběhly roku 2010.

Leden

Zbořené budovy v Port-au-Prince na Haiti po ničivém zemětřesení, fotografie z 13. ledna

Březen

Duben

Ropná skvrna šířící se z místa katastrofy Deepwater Horizon, fotografie z 24. května

Květen

Červenec

Kouř nad západním Ruskem během ničivých požárů, fotografie ze 4. srpna

Srpen

Snímek protržení hráze odkaliště u Ajky z 9. října ukazuje znečištění několik kilometrů na západ od hráze

Říjen

Externí odkazy

Média použitá na této stránce

Haiti earthquake damage overhead.jpg
CLEARWATER, Fla. – A Coast Guard C-130 Hercules fixed-wing aircraft crew from Air Station Clearwater, conducts an overflight assessment above Port-au-Prince, Haiti, January 13, 2010. The assessment follows a 7.0 magnitude earthquake that damaged the region January 12, 2010. (Text from USCG.) However this image shows a place [1] in Léogâne.
Russia TMO 2010216 lrg.jpg
Intense fires continued to rage in western Russia on August 4, 2010. Burning in dry peat bogs and forests, the fires produced a dense plume of smoke that reached across hundreds of kilometers. The Moderate Resolution Imaging Spectroradiometer (MODIS) captured this view of the fires and smoke in three consecutive overpasses on NASA’s Terra satellite. The smooth gray-brown smoke hangs over the Russian landscape, completely obscuring the ground in places. The top image provides a close view of the fires immediately southeast of Moscow, while the lower image shows the full extent of the smoke plume.

The fires along the southern edge of the smoke plume near the city of Razan, top image, are among the most intense. Outlined in red, a line of intense fires is generating a wall of smoke. The easternmost fire in the image is extreme enough that it produced a pyrocumulus cloud, a dense towering cloud formed when intense heat from a fire pushes air high into the atmosphere.

The lower image shows the full extent of the smoke plume, spanning about 3,000 kilometers (1,860 miles) from east to west. If the smoke were in the United States, it would extend approximately from San Francisco to Chicago. The MODIS sensor acquired the right section of the image starting at 5:55 UTC (10:55 a.m. local time, 8:55 a.m. in Moscow). The center section is from the overpass starting at 7:35 UTC (11:35 local time, 10:35 in Moscow), and the westernmost section was taken at 9:10 UTC (12:10 p.m. local time in Moscow).

Early analyses of data from the Multi-angle Imaging Spectroradiometer (MISR), another instrument on the Terra satellite, indicates that smoke from previous days has at times reached 12 kilometers (six miles) above Earth’s surface into the stratosphere. At such heights, smoke is able to travel long distances to affect air quality far away. This may be one reason that the smoke covers such a large area. The pyrocumulus cloud and the detection of smoke in the stratosphere are good indicators that the fires are large and extremely intense.

According to news reports, 520 fires were burning in western Russia on August 4. MODIS detected far fewer. It is likely that the remaining fires were hidden from the satellite’s view by the thick smoke and scattered clouds. High temperatures and severe drought dried vegetation throughout central Russia, creating hazardous fire conditions in July.

As of August 4, 48 people had died in the fires and more than 2,000 had lost their homes throughout central Russia, said news reports. The dense smoke also created hazardous air quality over a broad region. Visibility in Moscow dropped to 20 meters (0.01 miles) on August 4, and health officials warned that everyone, including healthy people, needed to take preventative measures such as staying indoors or wearing a mask outdoors, reported the Wall Street Journal. In the image, Moscow is hidden under a pall of smoke. Close to the fires, smoke poses a health risk because it contains small particles (soot) and hazardous gases that can irritate the eyes and respiratory system. Smoke also contains chemicals that lead to ozone production farther away from the fires.
Toxic Sludge in Hungary 2010.jpg
Natural-colour image of the area surrounding the toxic sludge spill in Hungary. The alumina plant appears along the right edge of the image and incorporates both bright blue and brick red reservoirs. The sludge forms a red-orange streak running west from the plant. This view shows the spill thinning but remaining discernible for several kilometres to the west.
Deepwater Horizon oil spill - May 24, 2010.jpg
Description from NASA (source):

"NASA's Terra Satellites Sees Spill on May 24
Sunlight illuminated the lingering oil slick off the Mississippi Delta on May 24, 2010. The Moderate-Resolution Imaging Spectroradiometer (MODIS) on NASA’s Terra satellite captured this image the same day.
Oil smoothes the ocean surface, making the Sun’s reflection brighter near the centerline of the path of the satellite, and reducing the scattering of sunlight in other places. As a result, the oil slick is brighter than the surrounding water in some places (image center) and darker than the surrounding water in others (image lower right). The tip of the Mississippi Delta is surrounded by muddy water that appears light tan. Bright white ribbons of oil streak across this sediment-laden water.
Tendrils of oil extend to the north and east of the main body of the slick. A small, dark plume along the edge of the slick, not far from the original location of the Deepwater Horizon rig, indicates a possible controlled burn of oil on the ocean surface.
To the west of the bird’s-foot part of the delta, dark patches in the water may also be oil, but detecting a manmade oil slick in coastal areas can be even more complicated than detecting it in the open ocean.
When oil slicks are visible in satellite images, it is because they have changed how the water reflects light, either by making the Sun’s reflection brighter or by dampening the scattering of sunlight, which makes the oily area darker. In coastal areas, however, similar changes in reflectivity can occur from differences in salinity (fresh versus salt water) and from naturally produced oils from plants.

Michon Scott, NASA's Earth Observatory, NASA Goddard Space Flight Center"