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Smoke over Lake Toba, Indone
KidSat Images - Fires in Ind
10/1/97
| Date |
10/1/97 |
| Description |
KidSat Images - Fires in Indonesia As the Space Shuttle Atlantis flew over the Indonesian archipelago on Saturday, September 27, middle school students across the country used the Kidsat camera to photograph the fires and smoke that blanket the island of Sumatra . A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra (7.44S, 106.1E). [Mission Elaspsed Time (MET) 00215343 - 00215750] Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. Due to the lack of trade winds, the seasonal warm waters in the eastern Pacific have spread over to South America. Consequently, the water temperature in Indonesia has dropped significantly. This decrease in temperature has not produced enough warm water vapor to produce the normal seasonal showers that usually encompass the area. The effects of the fires have been astronomical. So far the fire has been blamed for two fatal accidents and countless health hazards. At one point, the pollution index of the region reached 839. To put a relative point to this number, a pollution index of 300 is a equivalent of smoking 20 cigarettes a day. The smoke, during one time, blanketed an area that was larger than the continental United States. Currently, the fire's rage has been quelled by winds and rain which have lifted the smog and dampened the fires. However it is estimated that 100,000 fire fighters are needed to stop the fire. This KidSat image (MET 00215424) of the northern regions of Sumatra was captured on September 27, 1997 during the Shuttle flight STS-86. It is centered at 3.1 degrees S 98.6 degrees E and is 140 km wide and 205 km long. Smoke from the fires completely covers the land. The only indication of surface features is from the clouds that rise above the smoke over Danau Toba, the largest lake in Sumatra. The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. Commands are sent from middle schools through a Mission Operations Gateway at the University of California, San Diego, to a Thinkpad on the Shuttle flight deck. Images are transmitted back to the Jet Propulsion Laboratory where they are immediately placed on the Internet for the KidSat students and the rest of the world to view and use. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). ##### |
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Map of northern Sumatra, Ind
This map corresponds to KidS
10/1/97
| Date |
10/1/97 |
| Description |
This map corresponds to KidSat image MET 00215424 of the northern regions of Sumatra that was captured on September 27, 1997 during the Shuttle flight STS-86. It is centered at 3.1 degrees S 98.6 degrees E. As the Space Shuttle Atlantis flew over the Indonesian archipelago last Friday, middle school students across the country photographed the fires and smoke that blanket Sumatra. A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra (7.44S, 106.1E). Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. Commands are sent from middle schools through a Mission Operations Gateway at the University of California, San Diego, to a Thinkpad on the Shuttle flight deck. Images are transmitted back to the Jet Propulsion Laboratory where they are immediately placed on the Internet for the KidSat students and the rest of the world to view and use. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). ##### |
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Southern tip of Sumatra, Ind
KidSat Images - Fires in Ind
10/1/97
| Date |
10/1/97 |
| Description |
KidSat Images - Fires in Indonesia Middle school students across the country photographed the fires and smoke over southern Sumatra from a camera aboard the Space Shuttle Atlantis Saturday, September 2. A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra (7.44S, 106.1E). [MET 00215343 - 00215750]. Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. Due to the lack of trade winds, the seasonal warm waters in the eastern Pacific have spread over to South America. Consequently, the water temperature in Indonesia has dropped significantly. This decrease in temperature has not produced enough warm water vapor to produce the normal seasonal showers that usually encompass the area. The fire has now been blamed for two fatal accidents and countless health hazards. At one point, the pollution index of the region reached 839. To put a relative point to this number, a pollution index of 300 is a equivalent of smoking 20 cigarettes a day. The smoke, during one time, blanketed an area that was larger than the continental United States. Currently, the fire's rage has been quelled by winds and rain which have lifted the smog and dampened the fires. However it is estimated that 100,000 fire fighters are needed to stop the fire. This KidSat image (MET 00215624) of the southern tip of Sumatra was captured on September 27, 1997 during Space Shuttle flight STS-86. It is centered at 3.0 degrees S, 102.9 degrees E and is 140 km wide and 205 km long. A clear view is visible of the southern tip of Sumatra with the volcanoes that make up the backbone of the island appearing darker than the surrounding land. Travelling northwest, the first smoke plumes are visible in the rain forests east of the mountains where land is being cleared for palm plantations. The prevailing winds are from the southeast and are blowing most of the smoke to the northwest of this image (see image 00215637 and 00215701). The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). ##### |
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Southern Sumatra, Indonesia
KidSat Images - Fires in Ind
10/1/97
| Date |
10/1/97 |
| Description |
KidSat Images - Fires in Indonesia Middle school students across the country photographed the fires and smoke over southern Sumatra from a camera aboard the Space Shuttle Atlantis September 2. A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra (7.44S, 106.1E). [MET 00215343 - 00215750]. Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. Due to the lack of trade winds, the seasonal warm waters in the eastern Pacific have spread over to South America. Consequently, the water temperature in Indonesia has dropped significantly. This decrease in temperature has not produced enough warm water vapor to produce the normal seasonal showers that usually encompass the area. The fire has now been blamed for two fatal accidents and countless health hazards. At one point, the pollution index of the region reached 839. To put a relative point to this number, a pollution index of 300 is a equivalent of smoking 20 cigarettes a day. The smoke, during one time, blanketed an area that was larger than the continental United States. Currently, the fire's rage has been quelled by winds and rain which have lifted the smog and dampened the fires. However it is estimated that 100,000 fire fighters are needed to stop the fire. This KidSat image (MET 00215637) of the southern region of Sumatra was captured on September 27, 1997 during the Shuttle flight STS-86. It is centered at 3.7 degrees S 103.4 degrees E and is 140 km wide and 205 km long. The smoke plumes appear in the rain forests east of the mountains where land is being cleared for palm plantations, the plumes indicate a prevailing wind to the northwest and rise above the continuous layer of smoke. Within a short distance, the region becomes completely blanketed in smoke with only the peaks of the volcanoes rising above the gray haze layer. The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). ##### |
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Sumatra, Indonesia
KidSat Images - Fires in Ind
10/1/97
| Date |
10/1/97 |
| Description |
KidSat Images - Fires in Indonesia Middle school students across the country photographed the fires and smoke over southern Sumatra from a camera aboard the Space Shuttle Atlantis on September 27. A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra (7.44S, 106.1E) [MET 00215343 - 00215750]. Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. Due to the lack of trade winds, the seasonal warm waters in the eastern Pacific have spread over to South America. Consequently, the water temperature in Indonesia has dropped significantly. This decrease in temperature has not produced enough warm water vapor to produce the normal seasonal showers that usually encompass the area. The fire has now been blamed for two fatal accidents and countless health hazards. At one point, the pollution index of the region reached 839. To put a relative point to this number, a pollution index of 300 is a equivalent of smoking 20 cigarettes a day. The smoke, during one time, blanketed an area that was larger than the continental United States. Currently, the fire's rage has been quelled by winds and rain which have lifted the smog and dampened the fires. However it is estimated that 100,000 fire fighters are needed to stop the fire. This KidSat image (MET 00215701) of Sumatra was captured on September 27, 1997 during the Shuttle flight STS-86. It is centered at 4.9 degrees S 104.3 degrees E and is 140 km wide and 205 km long. The smoke plumes appear in the rain forests east of the mountains where land is being cleared for palm plantations, the plumes indicate a prevailing wind to the northwest and rise above the continuous layer of smoke. For a geographic reference, see image #00215701_img_map. The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). ##### |
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Kidsat image of Sumatra, Ind
Middle school students acros
10/1/97
| Date |
10/1/97 |
| Description |
Middle school students across the country photographed the fires and smoke over southern Sumatra from a camera aboard the Space Shuttle Atlantis last Friday, September 26. A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra (7.44S, 106.1E) [MET 00215343 - 00215750]. Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. Due to the lack of trade winds, the seasonal warm waters in the eastern Pacific have spread over to South America. Consequently, the water temperature in Indonesia has dropped significantly. This decrease in temperature has not produced enough warm water vapor to produce the normal seasonal showers that usually encompass the area. The fire has now been blamed for two fatal accidents and countless health hazards. At one point, the pollution index of the region reached 839. To put a relative point to this number, a pollution index of 300 is a equivalent of smoking 20 cigarettes a day. The smoke, during one time, blanketed an area that was larger than the continental United States. Currently, the fire's rage has been quelled by winds and rain which have lifted the smog and dampened the fires. However it is estimated that 100,000 fire fighters are needed to stop the fire. This KidSat image (MET 00215701) of Sumatra was captured on September 27, 1997 during the Shuttle flight STS-86. It is centered at 4.9 degrees S 104.3 degrees E and is 140 km wide and 205 km long. The smoke plumes appear in the rain forests east of the mountains where land is being cleared for palm plantations, the plumes indicate a prevailing wind to the northwest and rise above the continuous layer of smoke.The image is shown on a map of the region for geographic reference. Smoke from the fires completely covers the land. The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). ##### |
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Central Sumatra, Indonesia
This is a radar image of the
9/21/95
| Date |
9/21/95 |
| Description |
This is a radar image of the central part of the island of Sumatra in Indonesia that shows how the tropical rainforest typical of this country is being impacted by human activity. Native forest appears in green in this image, while prominent pink areas represent places where the native forest has been cleared. The large rectangular areas have been cleared for palm oil plantations. The bright pink zones are areas that have been cleared since 1989, while the dark pink zones are areas that were cleared before 1989. These radar data were processed as part of an effort to assist oil and gas companies working in the area to assess the environmental impact of both their drilling operations and the activities of the local population. Radar images are useful in these areas because heavy cloud cover and the persistent smoke and haze associated with deforestation have prevented usable visible-light imagery from being acquired since 1989. The dark shapes in the upper right (northeast) corner of the image are a chain of lakes in flat coastal marshes. This image was acquired in October 1994 by the Spaceborne Imaging Radar C/X-Band Synthetic Aperture Radar (SIR-C/X-SAR) onboard the space shuttle Endeavour. Environmental changes can be easily documented by comparing this image with visible-light data that were acquired in previous years by the Landsat satellite. The image is centered at 0.9 degrees north latitude and 101.3 degrees east longitude. The area shown is 50 kilometers by 100 kilometers (31 miles by 62 miles). The colors in the image are assigned to different frequencies and polarizations of the radar as follows: red is L-band horizontally transmitted, horizontally received, green is L-band horizontally transmitted, vertically received, blue is L-band vertically transmitted, vertically received. SIR-C/X-SAR, a joint mission of the German, Italian and United States space agencies, is part of NASA's Mission to Planet Earth program. ##### |
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Mosaic image of fires in Ind
Middle school students acros
10/1/97
| Date |
10/1/97 |
| Description |
Middle school students across the country photographed the fires and smoke over southern Sumatra from a camera aboard the Space Shuttle Atlantis September 27. A joint effort between 23 of the 52 schools participating in this mission, the KidSat camera was used to image a 140 km wide, 1950 km long strip that starts in the northwest (5.24 degrees N, 97.11 degrees E), and follows the Pegunungan Barisan range across the equator to the southern tip of Sumatra 7.44S, 106.1E [MET 00215343 - 00215750]. Smoldering underground fires have raged uncontrolled for the past few weeks in Southeast Asia. Originally set to clear land for agriculture, the fires are usually extinguished by the annual monsoon rains. However, this year, the rains had not come due to El Nino which produces dry conditions in the Indonesia region. Due to the lack of trade winds, the seasonal warm waters in the eastern Pacific have spread over to South America. Consequently, the water temperature in Indonesia has dropped significantly. This decrease in temperature has not produced enough warm water vapor to produce the normal seasonal showers that usually encompass the area. The fire has now been blamed for two fatal accidents and countless health hazards. At one point, the pollution index of the region reached 839. To put a relative point to this number, a pollution index of 300 is a equivalent of smoking 20 cigarettes a day. The smoke, during one time, blanketed an area that was larger than the continental United States. Currently, the fire's rage has been quelled by winds and rain which have lifted the smog and dampened the fires. However it is estimated that 100,000 fire fighters are needed to stop the fire. The KidSat image shown here is a mosaic of three images of the 16 image series (Mission Elapsed Time) 00215624, 00215637, 00215701, the center latitude and longitude of each image, respectively, is 3.0 degrees S 102.9 degrees E, 3.7 degrees S 103.4 degrees E, 4.9 degrees S 104.3 degrees E and is 140 km wide and 400 km long. The images were captured on September 27, 1997 during Shuttle flight STS-86. Starting in the south (right) and traveling northwest (left), a clear view is visible of the southern tip of Sumatra with the volcanoes that make up the backbone of the island appearing darker than the surrounding land. Further northwest, the first smoke plumes appear in the rain forests east of the mountains where land is being cleared for palm plantations, the plumes indicate a prevailing wind to the northwest. Within a short distance, the region becomes completely blanketed in smoke with only the peaks of the volcanoes rising above the gray haze layer. The KidSat camera that photographed these fires is mounted in the overhead starboard window of the Shuttle Atlantis and operates before and after docking with Mir when the Shuttle's windows face the Earth. Students on the ground are linked to the camera through the Internet and a series of satellites. High school and undergraduate students work in collaboration with scientists and engineers to develop and operate the KidSat systems. Curriculum developed by The Johns Hopkins University Institute for the Academic Advancement of Youth is used in the middle school classrooms to encourage scientific inquiry based on the images. The photographs from the three missions of the KidSat pilot program can be accessed at the following URL: http://www.jpl.nasa.gov/kidsat The KidSat program was developed by the Jet Propulsion Laboratory, The Johns Hopkins University Institute for the Academic Advancement of Youth, and The University of California, San Diego, with support from NASA's Johnson Space Center. The project is supported by NASA's Office of Human Resources and Education with support from NASA's Offices of Mission to Planet Earth, Space Flight, and Space Science. JPL is a division of the California Institute of Technology (Caltech). |
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Water Vapor
This image shows atmospheric
10/27/97
| Date |
10/27/97 |
| Description |
This image shows atmospheric water vapor in Earth's upper troposphere, about 10 kilometers (6 miles) above the surface, as measured by the Microwave Limb Sounder (MLS) instrument flying aboard the Upper Atmosphere Research Satellite. These data collected in early October 1997 indicate the presence of El Niño by showing a shift of humidity from west to east (blue and red areas) along the equatorial Pacific Ocean. El Niño is the term used when the warmest equatorial Pacific Ocean water is displaced toward the east. The areas of high atmospheric moisture correspond to areas of very warm ocean water. Warmer water evaporates at a higher rate and the resulting warm moist air then rises, forming tall cloud towers. In the tropics, the warm water and the resulting tall cloud towers typically produce large amounts of rain. The MLS instrument, developed at NASA's Jet Propulsion Laboratory, measures humidity at the top of these clouds, which are very moist. This rain is now occurring in the eastern Pacific Ocean and has left Indonesia (deep blue region) unusually dry, resulting in the current drought in that region. This image also shows moisture moving north into Mexico, an effect of several hurricanes spawned by the warm waters of El Niño. ##### |
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Central Java, Indonesia
The summits of two large vol
7/13/95
| Date |
7/13/95 |
| Description |
The summits of two large volcanoes in Central Java, Indonesia are shown in the center of this radar image. Lava flows of different ages and surface roughness appear in shades of green and yellow surrounding the summit of Mt. Merbabu (mid-center) and Mt. Merapi (lower center). Mt. Merapi erupted on Novemeber 28, 1994 about six weeks after this image was taken. The eruption killed more than 60 people and forced the evacuation of more than 6,000 others. Thousands of other residents were put on alert due to the possibility of volcanic debris mudflows, called lahars, that threatened nearby towns. Mt. Merapi is located approximately 40 kilometers (25 miles) north of Yogyakarta, the capital of Central Java. The older volcano at the top of the image is unnamed. Lake Rawapening is the dark blue feature in the upper right. The light blue area southeast of the lake is the city of Salatiga. Directly south of Salatiga and southeast of Mt. Merapi is the city of Boyolali. Scientists are studying Mt. Merapi as part of the international "Decade Volcanoes" project, because of its recent activity and potential threat to local populations. The radar data are being used to identify and distinguish a variety of volcanic features. This image was acquired on October 10, 1994 by the Spaceborne Imaging Radar-C/X-Band Synthetic Aperture Radar (SIR-C/X-SAR) aboard the space shuttle Endeavour. SIR-C/X-SAR, a joint mission of the German, Italian and the United States space agencies, is part of NASA's Mission to Planet Earth. The image is centered at 7.5 degrees South latitude and 110.5 degrees East longitude and covers an area of 33 kilometers by 65 kilometers (20 miles by 40 miles). ##### |
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Aerosols from Earth Probe TO
| Title |
Aerosols from Earth Probe TOMS: Indonesia from 8/7/97 to 11/15/97 (3 times @ 1.5 days/sec) |
| Completed |
1998-12-07 |
|
Aerosols from Earth Probe TO
| Title |
Aerosols from Earth Probe TOMS: Indonesia from 6/29/97 to 1/13/98 (3 times @ 6 days/sec) |
| Completed |
1998-12-07 |
|
Atmospheric Water Vapor duri
| Title |
Atmospheric Water Vapor during the 1998 La Niña (WMS) |
| Abstract |
Water vapor is a small but significant constituent of the atmosphere, warming the planet due to the greenhouse effect and condensing to form clouds which both warm and cool the Earth in different circumstances. A key feature of global atmospheric water vapor convection is the Intertropical Convergence Zone, the low pressure region within five degrees of the equator where the trade winds converge and solar heating of the atmosphere forces the water-laden air to rise in altitude, form clouds, and then precipitate as rain in the afternoon. This visualization shows the global water vapor distribution in gray and white and the global precipitation in yellow every hour from August 30, 1998 to September 20, 1998. The afternoon thunderstorms in the tropics are seen as a flashing yellow region that moves from east to west, following the sun. This is a La Niña period, when the water to the west of South America is cooler than normal, forcing the atmosphere there to cool down and hold less water. Strong east-to-west winds can be seen in this region, contributing to the high water vapor region that forms further to the west over southeast Asia, the Philippines, and Indonesia, causing increased humidity and rainfall in that region. This data is from the Goddard Earth Modeling System, a coupled land-ocean-atmosphere model which uses earth and satellite-based observations to simulate the Earth's physical system during events such as La Niña. |
| Completed |
2004-07-06 |
|
SeaWiFS Indonesian Smoke
| Title |
SeaWiFS Indonesian Smoke |
| Completed |
1998-01-01 |
|
Aerosols from Earth Probe TO
| Title |
Aerosols from Earth Probe TOMS: Venezuela from 3/11/98 to 4/4/98 (3 times @ 1.5 days/sec) |
| Completed |
1998-12-07 |
|
AURA/OMI Tropospheric Ozone
| Title |
AURA/OMI Tropospheric Ozone over Indonesia |
| Abstract |
Aura's instruments study tropospheric, or low-level atmospheric chemistry and will monitor air pollution around the world on a daily basis. Aura measures five of the six 'Criteria Pollutants' identified by the U.S. Environmental Protection Agency. |
| Completed |
2004-12-07 |
|
AURA/OMI Tropospheric Ozone
| Title |
AURA/OMI Tropospheric Ozone over Indonesia |
| Abstract |
Aura's instruments study tropospheric, or low-level atmospheric chemistry and will monitor air pollution around the world on a daily basis. Aura measures five of the six 'Criteria Pollutants' identified by the U.S. Environmental Protection Agency. |
| Completed |
2004-12-07 |
|
AURA/OMI Tropospheric Ozone
| Title |
AURA/OMI Tropospheric Ozone over Indonesia |
| Abstract |
Aura's instruments study tropospheric, or low-level atmospheric chemistry and will monitor air pollution around the world on a daily basis. Aura measures five of the six 'Criteria Pollutants' identified by the U.S. Environmental Protection Agency. |
| Completed |
2004-12-07 |
|
TRMM Rainmap for September 1
| Title |
TRMM Rainmap for September 1998: Indonesia |
| Completed |
1998-12-07 |
|
Aerosols from Nimbus TOMS: I
| Title |
Aerosols from Nimbus TOMS: Indonesia 1979 - 1992 Oct 1-15 Averages |
| Completed |
1998-12-07 |
|
SeaWiFS Biosphere: Indonesia
| Title |
SeaWiFS Biosphere: Indonesia and Australia |
| Abstract |
Viewing Indonesia and Australia (data begins at Sept. 97 to June 99) |
| Completed |
1999-08-20 |
|
Indonesian Tropospheric Ozon
| Title |
Indonesian Tropospheric Ozone and Aerosol Index |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2000-10-19 |
|
Indonesian Tropospheric Ozon
| Title |
Indonesian Tropospheric Ozone and Aerosol Index |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2000-10-19 |
|
Indonesian Tropospheric Ozon
| Title |
Indonesian Tropospheric Ozone and Aerosol Index |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2000-10-19 |
|
Indonesian Tropospheric Ozon
| Title |
Indonesian Tropospheric Ozone and Aerosol Index |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2000-10-19 |
|
Tropospheric Ozone from Eart
| Title |
Tropospheric Ozone from Earth Probe TOMS: Indonesia - 9 Day Averages (May 1997 - May 1998) |
| Completed |
1998-12-07 |
|
Sea Surface Temperature arou
| Title |
Sea Surface Temperature around Indonesia from TRMM: January 1998 through July 1998 |
| Completed |
1998-07-01 |
|
Indonesia Flyover
| Title |
Indonesia Flyover |
| Abstract |
One of a series of global flyovers done for the Learning Channel. |
| Completed |
1998-05-16 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indian Ocean to Indonesia Zoom |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indian Ocean to Indonesia Zoom |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indonesia |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indonesia |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indonesia |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indonesia |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indonesia |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Tropospheric Ozone and Smoke
| Title |
Tropospheric Ozone and Smoke from Earth Probe TOMS: Indonesia |
| Abstract |
Researchers have discovered that smoke and smog move in different ways through the atmosphere. A series of unusual events several years ago created a blanket of pollution over the Indian Ocean. In this animation, significant smog or tropospheric ozone is represented by red and green and regions of significant smoke index are in shades of white and gray. |
| Completed |
2001-03-06 |
|
Floods in Indonesia
| Title |
Floods in Indonesia |
| Description |
Days of heavy rains led to devastating landslides on the central Indonesian island of Sulawesi (formerly Celebes) in mid-June 2006. As of June 22, the death toll stood at 200 with 135 still missing, reported the United Nations Office for the Coordination of Humanitarian Affairs. [ http://www.reliefweb.int/rw/RWB.NSF/db900SID/KKEE-6QZME5?OpenDocument ] The hardest hit area was Sinjai in South Sulawesi. This image reflects the rainfall totals over the island from June 14 to June 21, 2006. Highest rainfall totals, on the order of 10 to 12 inches (300 millimeters) are red. The southernmost area of heavy rain is near the southern tip of Sulawesi and covers the higher terrain adjacent to Sinjai. Deforestation in the region is believed to be a contributing factor in the disastrous mudslides. The image was created using data from the Multi-satellite Precipitation Analysis (MPA), which monitors rainfall over the global Tropics. The MPA uses rainfall measurements from the Tropical Rainfall Measuring Mission satellite (TRMM) to calibrate rainfall estimates from other satellites. TRMM's primary mission is to measure rainfall over the global tropics. It was placed into service in November of 1997. From its low-earth orbit, TRMM has been measuring rainfall over the global Tropics using a combination of passive microwave and active radar sensors. TRMM is a joint mission between NASA and the Japanese space agency, JAXA. Image produced by Hal Pierce (SSAI/NASA GSFC) and caption by Steve Lang (SSAI/NASA GSFC). |
|
Floods in Indonesia
| Title |
Floods in Indonesia |
| Description |
Days of heavy rains led to devastating landslides on the central Indonesian island of Sulawesi (formerly Celebes) in mid-June 2006. As of June 22, the death toll stood at 200 with 135 still missing, reported the United Nations Office for the Coordination of Humanitarian Affairs. [ http://www.reliefweb.int/rw/RWB.NSF/db900SID/KKEE-6QZME5?OpenDocument ] The hardest hit area was Sinjai in South Sulawesi. This image reflects the rainfall totals over the island from June 14 to June 21, 2006. Highest rainfall totals, on the order of 10 to 12 inches (300 millimeters) are red. The southernmost area of heavy rain is near the southern tip of Sulawesi and covers the higher terrain adjacent to Sinjai. Deforestation in the region is believed to be a contributing factor in the disastrous mudslides. The image was created using data from the Multi-satellite Precipitation Analysis (MPA), which monitors rainfall over the global Tropics. The MPA uses rainfall measurements from the Tropical Rainfall Measuring Mission satellite (TRMM) to calibrate rainfall estimates from other satellites. TRMM's primary mission is to measure rainfall over the global tropics. It was placed into service in November of 1997. From its low-earth orbit, TRMM has been measuring rainfall over the global Tropics using a combination of passive microwave and active radar sensors. TRMM is a joint mission between NASA and the Japanese space agency, JAXA. Image produced by Hal Pierce (SSAI/NASA GSFC) and caption by Steve Lang (SSAI/NASA GSFC). |
|
Air Quality Emergency in Mal
| Title |
Air Quality Emergency in Malaysia |
| Description |
In mid-August, several locations in mainland Malaysia declared air quality emergencies, as smoke from burning in Indonesia wafted across the Strait of Malacca and blanketed the country with haze. Many regions closed their schools and businesses, and news reports have indicated this may be the worst air quality event the country has experienced since the terrible fire season on Sumatra during the 1997-98 El Niño. This pair of images shows the region in Sumatra where many of the fires are burning (left), and the resulting smoke blanketing Malaysia (right). Although it is sometimes difficult to distinguish smoke from clouds, the infrared-enhanced view can penetrate the smoke in places. In this type of image, vegetation is bright green, clouds are white or light blue, and smoke becomes almost transparent in many places. Water is dark blue (nearly black). Actively burning fires are marked with red dots. These images were captured by the Moderate Resolution Imaging Spectroradiometer (MODIS) [ http://modis.gsfc.nasa.gov ] on NASA's Terra [ http://terra.nasa.gov ] satellite on August 12, 2005. NASA image by Jeff Schmaltz, MODIS Rapid Response Team, [ http://rapidfire.sci.gsfc.nasa.gov ] Goddard Space Flight Center. |
|
Carbon Monoxide over Indones
| Title |
Carbon Monoxide over Indonesia |
| Description |
Thick haze is an annual problem on the Indonesian islands of Borneo and Sumatra during the dry season, which runs from about May through September. Along with the dry season comes large fires, often set to clear land for agriculture. This year, the choking haze and smoke produced by such fires grew particularly bad during the third week of August. On August 21, 2004, air traffic was temporarily suspended because of the low visibility. In addition to decreasing visibility, the fires burning in Indonesia produce high levels of carbon monoxide (CO), which are detected from satellite by the Measurements of Pollution in the Troposphere (MOPITT [ http://www.atmosp.physics.utoronto.ca/MOPITT/home.html ]) instrument. The image above shows the CO mixing ratio at 850 hectopascals (roughly 1-2 kilometers altitude) derived from MOPITT observations for August 5-20, 2004. The mixing ratio is given in parts per billion by volume (ppbv). Red and yellow colors represent high CO levels, blue colors mark low levels of pollution. Gray areas indicate where no data have been collected due to persistent cloud cover. The image above correlates well with images taken by the MODIS instrument on board the Aqua satellite showing the location of the fires and the outflow of smoke, see Fires on Borneo [ http://earthobservatory.nasa.gov/NaturalHazards/natural_hazards_v2.php3?img_id=12351 ]. Here, black outlines show the shape of the islands under the data. The largest island on the top right is Borneo. Yellow pixels, indicating high carbon monoxide concentrations, color the southeast corner of the island where the MODIS images also show fires and haze. Carbon monoxide concentrations also appear to be high on Sumatra, the long island pointing into the upper left corner of the image. Data courtesy of the NCAR and University of Toronto MOPITT Teams. |
|
Carbon Monoxide over Indones
| Title |
Carbon Monoxide over Indonesia |
| Description |
The MODIS instrument onboard NASA?s Aqua satellite detected widespread fire activity on the islands of Borneo and Sumatra. [ http://earthobservatory.nasa.gov/NaturalHazards/natural_hazards_v2.php3?img_id=12530 ] The burning of biomass produces, among other pollutants, high amounts of carbon monoxide (CO) which is detected by the Measurements of Pollution in the Troposphere (MOPITT) instrument launched on board the Terra satellite in December 1999. The false-color image below shows the atmospheric carbon monoxide concentrations at 700 hPa (about 3 km altitude) over Borneo averaged for September 15 - October 15, 2004. Only data collected during daytime have been included in this image. Carbon monoxide retrievals from daytime observations are, compared to retrievals from nighttime observations, more sensitive to CO concentrations at lower altitudes and better represent the location of sources. Regions with high amounts of CO are represented in red and yellow colors and correlate well with the location of the MODIS fire counts. Areas where no data have been collected due to persistent cloud coverage are shown in gray. NASA image created by Jesse Allen, Earth Observatory, using data provided courtesy of the NCAR and University of Toronto MOPITT teams. |
|
Dili, East Timor
| Title |
Dili, East Timor |
| Description |
Violence has marked East Timor's emergence as an independent nation. This false-color Enhanced Thematic Mapper Plus (ETM+) image from Landsat shows parts of the city of Dili, which became the capital of the independent nation of East Timor. The image was captured on September 8, 1999, only a few days after the announcement of the results of the referendum in which the residents of the island voted on whether to remain part of Indonesia or to become an independent nation. The overwhelming support for independence sparked violent protests among dissenters, who set scores of fires (red dots). Dark gray smoke streams southwest from burning buildings in the center of the image. Rivers appear pinkish-purple in this false-color combination. To the west of Dili is the Comoro River. To the east are the Bemorl and Benmauc Rivers, which join before emptying into the mingling waters of the Sawu and Banda Seas. To the west of the Comoro River near the coast is a thin, straight, purplish line that marks the location of the Comoro air strip. At bottom right are the mountains of central East Timor, whose highest peak reaches more than 2,900 meters (9,570 ft). This is a false-color composite image made using shortwave infrared, near infrared, and blue wavelengths(ETM+ plus bands 7,4, and 1). Image provided by the Australian Landsat receiving station and the Landsat 7 Science Team. |
|
Drought in Southeast Asia
| Title |
Drought in Southeast Asia |
| Description |
Little rain has fallen in Southeast Asia after an early end to the rainy season [ http://earthobservatory.nasa.gov/NaturalHazards/natural_hazards_v2.php3?img_id=12569 ] in October 2004, leaving the region in severe drought. From southern China, through the Indochina and Malay Peninsulas, and into some of the islands of Indonesia, crops are shriveling, and in some places, drinking water is scarce. According to news reports, the drought will cost farmers in Thailand up to US $193.2 million after 809,000 hectares of crops were lost. Vietnam has lost US $60 million in crops, and up to 1.3 million people do not have access to clean water. Other countries in the region have been similarly affected, with food shortages in Cambodia and a lack of drinkable water in Hainan, China. Rains eased the drought [ http://www.fas.usda.gov/pecad/highlights/2005/03/China%20Drought/Chinadrought.htm ] in parts of China in late February, but much of the region remains parched. It is the worst drought in 50 years. The above image illustrates the extent of the drought in February 2005. The image shows outgoing longwave radiation, which is a measure of the amount of heat radiated from the surface of the Earth. Since clouds tend to be colder than the Earth?s surface, the measurement shows the distribution of clouds. It is one way to monitor drought because where there are no clouds, there is no rain. In this case, scientists have compared the amount of heat radiated from the surface this year to the average collected between 1979 and 1995. The result shows that significantly fewer cool clouds gathered over Southeast Asia in 2005 than normal, as reflected by the red that stretches from Australia to southern China. This image was derived from measurements made by the TIROS Operational Vertical Sounder (TOVS) onboard the NOAA-POES satellite series. OLR anomaly image created by Jesse Allen, Earth Observatory, using data analyzed by Assaf Anyamba and provided by NOAA National Center for Environmental Prediction [ http://www.ncep.noaa.gov/ ]. |
|
Drought in Southeast Asia
| Title |
Drought in Southeast Asia |
| Description |
Little rain has fallen in Southeast Asia after an early end to the rainy season [ http://earthobservatory.nasa.gov/NaturalHazards/natural_hazards_v2.php3?img_id=12569 ] in October 2004, leaving the region in severe drought. From southern China, through the Indochina and Malay Peninsulas, and into some of the islands of Indonesia, crops are shriveling, and in some places, drinking water is scarce. According to news reports, the drought will cost farmers in Thailand up to US $193.2 million after 809,000 hectares of crops were lost. Vietnam has lost US $60 million in crops, and up to 1.3 million people do not have access to clean water. Other countries in the region have been similarly affected, with food shortages in Cambodia and a lack of drinkable water in Hainan, China. Rains eased the drought [ http://www.fas.usda.gov/pecad/highlights/2005/03/China%20Drought/Chinadrought.htm ] in parts of China in late February, but much of the region remains parched. It is the worst drought in 50 years. The above image illustrates the extent of the drought in February 2005. The image shows outgoing longwave radiation, which is a measure of the amount of heat radiated from the surface of the Earth. Since clouds tend to be colder than the Earth?s surface, the measurement shows the distribution of clouds. It is one way to monitor drought because where there are no clouds, there is no rain. In this case, scientists have compared the amount of heat radiated from the surface this year to the average collected between 1979 and 1995. The result shows that significantly fewer cool clouds gathered over Southeast Asia in 2005 than normal, as reflected by the red that stretches from Australia to southern China. This image was derived from measurements made by the TIROS Operational Vertical Sounder (TOVS) onboard the NOAA-POES satellite series. OLR anomaly image created by Jesse Allen, Earth Observatory, using data analyzed by Assaf Anyamba and provided by NOAA National Center for Environmental Prediction [ http://www.ncep.noaa.gov/ ]. |
|
Dust Storm out of Northern A
| Title |
Dust Storm out of Northern Africa |
| Description |
On March 29, 2007, the Shiveluch Volcano (sometimes spelled Sheveluch) on the Russian Federation's Kamchatka Peninsula erupted. According to the Alaska Volcano Observatory [ http://www.avo.alaska.edu/activity/avoreport.php?view=kaminfo ] the volcano underwent an explosive eruption between 01:50 and 2:30 UTC, sending an ash cloud skyward roughly 9,750 meters (32,000 feet), based on visual estimates. The Moderate Resolution Imaging Spectroradiometer (MODIS) [ http://modis.gsfc.nasa.gov/ ] flying onboard NASA's Aqua [ http://aqua.nasa.gov/ ] satellite took this picture at 02:00 UTC on March 29. The top image shows the volcano and its surroundings. The bottom image shows a close-up view of the volcano at 250 meters per pixel. Satellites often capture images of volcanic ash plumes, but usually as the plumes are blowing away. Plumes have been observed blowing away from Shiveluch [ http://earthobservatory.nasa.gov/NaturalHazards/natural_hazards_v2.php3?img_id=14078 ] before. This image, however, is different. At the time the Aqua satellite passed overhead, the eruption was recent enough (and the air was apparently still enough) that the ash cloud still hovered above the summit. In this image, the bulbous cloud casts its shadow northward over the icy landscape. Volcanic ash eruptions inject particles into Earth's atmosphere. Substantial eruptions of light-reflecting particles can reduce temperatures and even affect atmospheric circulation. Large eruptions impact climate patterns [ http://earthobservatory.nasa.gov/Study/Volcano/ ] for years. A massive eruption of the Tambora Volcano [ http://science.nasa.gov/headlines/y2006/03oct_novarupta.htm ] in Indonesia in 1815, for instance, earned 1816 the nickname "the year without a summer."Shiveluch [ http://www.volcano.si.edu/world/volcano.cfm?vnum=1000-27= ] is a stratovolcano—a steep-sloped volcano composed of alternating layers of solidified ash, hardened lava, and volcanic rocks. One of Kamchatka's largest volcanoes, it sports a summit reaching 3,283 meters (10,771 feet). Shiveluch is also one of the peninsula's most active volcanoes, with an estimated 60 substantial eruptions in the past 10,000 years. You can download a 250-meter-resolution KMZ file of the North African dust storm [ http://earthobservatory.nasa.gov/NaturalHazards/Archive/Mar2007/nafrica_tmo_2007087.kmz ] for use with Google Earth. [ http://earth.google.com/download-earth.html ] NASA image created by Jesse Allen, using data provided courtesy of the MODIS Rapid Response [ http://rapidfire.sci.gsfc.nasa.gov/ ] team. |
|
Early Dry Season in Southeas
| Title |
Early Dry Season in Southeast Asia |
| Description |
In a typical monsoon season in South East Asia, the rains fall until October, but this year, the heavens went dry three to four weeks early. For farmers, who rely on monsoon rains to nourish crops, the early onset of the dry season could mean a reduced harvest. According to the Production Estimates and Crop Assessment Division of the U.S. Department of Agriculture?s Foreign Agricultural Service, the lack of rain affected the tail end of the growing season, and while most crops should be fine, yields could be reduced because of a lack of rain. The government of Thailand has already announced that the rice harvest will be less than expected, and the AFP reports that the Cambodian government is concerned about potential food shortages. In Cambodia, 80-85 percent of all rice is grown during the monsoon season. The early end to the rainy season could spell trouble for the next growing season, which depends on irrigation instead of rainfall. Not only did the rains end early, but less rain fell during the monsoon, and that could mean a shortage of irrigation water stored in reservoirs, particularly if the dry season lasts longer than normal. The above image confirms the absence of clouds associated with precipitation over Southeastern Asia during the month of October. The image is based on measurements of outgoing longwave radiation (OLR), the amount of heat being reflected from the Earth back into space, in Watts per square meter. Clouds tend to be cold, while land masses are warmer. Outgoing longwave radiation can help scientists monitor rainfall by showing where rainfall clouds are, or in this case, where they aren?t. The above image is a comparison of the amount of outgoing longwave radiation observed in October 2004, to the October average observed from 1979 to 1995. Areas that radiated more heat than average are red and those that radiated less are blue. Southeast Asia was radiating more heat than normal in October?a sign that fewer cool clouds covered the region. Indonesia, northern Australia, and parts of China also appear to be warmer, and possibly drier, than normal. This image was derived from measurements made by the TIROS Operational Vertical Sounder (TOVS) onboard the NOAA-POES satellite series. OLR anomaly image created by Jesse Allan, Earth Observatory, using data analyzed by Assaf Anyamba and provided by NOAA National Center for Environmental Prediction [ http://www.ncep.noaa.gov/ ]. |
|
Early Dry Season in Southeas
| Title |
Early Dry Season in Southeast Asia |
| Description |
In a typical monsoon season in South East Asia, the rains fall until October, but this year, the heavens went dry three to four weeks early. For farmers, who rely on monsoon rains to nourish crops, the early onset of the dry season could mean a reduced harvest. According to the Production Estimates and Crop Assessment Division of the U.S. Department of Agriculture?s Foreign Agricultural Service, the lack of rain affected the tail end of the growing season, and while most crops should be fine, yields could be reduced because of a lack of rain. The government of Thailand has already announced that the rice harvest will be less than expected, and the AFP reports that the Cambodian government is concerned about potential food shortages. In Cambodia, 80-85 percent of all rice is grown during the monsoon season. The early end to the rainy season could spell trouble for the next growing season, which depends on irrigation instead of rainfall. Not only did the rains end early, but less rain fell during the monsoon, and that could mean a shortage of irrigation water stored in reservoirs, particularly if the dry season lasts longer than normal. The above image confirms the absence of clouds associated with precipitation over Southeastern Asia during the month of October. The image is based on measurements of outgoing longwave radiation (OLR), the amount of heat being reflected from the Earth back into space, in Watts per square meter. Clouds tend to be cold, while land masses are warmer. Outgoing longwave radiation can help scientists monitor rainfall by showing where rainfall clouds are, or in this case, where they aren?t. The above image is a comparison of the amount of outgoing longwave radiation observed in October 2004, to the October average observed from 1979 to 1995. Areas that radiated more heat than average are red and those that radiated less are blue. Southeast Asia was radiating more heat than normal in October?a sign that fewer cool clouds covered the region. Indonesia, northern Australia, and parts of China also appear to be warmer, and possibly drier, than normal. This image was derived from measurements made by the TIROS Operational Vertical Sounder (TOVS) onboard the NOAA-POES satellite series. OLR anomaly image created by Jesse Allan, Earth Observatory, using data analyzed by Assaf Anyamba and provided by NOAA National Center for Environmental Prediction [ http://www.ncep.noaa.gov/ ]. |
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Earthquake in Sulawesi
| Title |
Earthquake in Sulawesi |
| Description |
In the quiet of the earliest hours of the morning on January 24, 2005, a magnitude 6.2 earthquake rattled Palu, Sulawesi, killing one and injuring four others. The earthquake was centered approximately 35 kilometers (20 miles) south of Palu, 10 kilometers (6.2 miles) beneath the surface. Located in the center of the arc of islands that forms Indonesia, Sulawesi is at the heart of one of the most geologically active regions in the world. The effect of millennia of shifting ground on the island is readily apparent in this elevation image, created using data from the Shuttle Radar Topography Mission (SRTM). SRTM was designed to collect three-dimensional measurements of the Earth's surface using a radar instrument that flew aboard the Space Shuttle Endeavour in February 2000. In the above image, the highest elevations are white and pink, while low elevations are green. Two mountain ranges run north-south from the center of the island to the shore. Between the two ranges, a finger of green marks out a straight valley that was formed by the fault. As this image reveals, the January 24 earthquake was centered just a few kilometers west of this fault. Like the San Andreas fault, Sulawesi's fault is a transform fault formed when two tectonic plates slide past one another. Indonesia sits on top of three major tectonic plates—giant slabs of the Earth's crust that float on the planet's molten core. The majority of the islands in the nation sit on the Eurasian plate, caught between the north-moving Australian plate, and the west-moving Pacific plate. Around Sulawesi, three smaller plates clash, adding to the seismic activity. All of this jostling between plates leads to frequent earthquakes and active volcanoes, Indonesia has more historically active volcanoes (76) than any other region on Earth. NASA image created by Jesse Allen, Earth Observatory, using SRTM data obtained from the Global Land Cover Facility. |
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Earthquake Spawns Tsunamis
| Title |
Earthquake Spawns Tsunamis |
| Description |
On December 26, 2004, tsunamis swept across the Indian ocean, spawned by a magnitude 9.0 earthquake off the coast of Sumatra. Aside from Indonesia, the island nation of Sri Lanka likely suffered the most casualties, with the death toll reported at 21,715 on December 29th.DigitalGlobe?s [ http://www.digitalglobe.com/ ] Quickbird satellite captured an image of the devestation around Kalutara, Sri Lanka (top), on December 26, 2004, at 10:20 a.m. local time?about an hour after the first in the series of waves hit. [A Quickbird image taken on January 1, 2004 (lower), shows the normal ocean conditions.] Water is flowing out of the inundated area and back into the sea, creating turbulence offshore. Some near-shore streets and yards are covered with muddy water. It is possible that the image was acquired in a ?trough? between wave crests. Imagery of nearby beaches shows that the edge of the ocean had receded about 150 meters from the shoreline.More images [ http://www.digitalglobe.com/tsunami_gallery.html ] are available on the DigitalGlobe web site. Images Copyright DigitalGlobe [ http://www.digitalglobe.com/ ] |
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Earthquake Spawns Tsunamis
| Title |
Earthquake Spawns Tsunamis |
| Description |
On December 26, 2004, tsunamis swept across the Indian ocean, spawned by a magnitude 9.0 earthquake off the coast of Sumatra. Aside from Indonesia, the island nation of Sri Lanka likely suffered the most casualties, with the death toll reported at 21,715 on December 29th.DigitalGlobe?s [ http://www.digitalglobe.com/ ] Quickbird satellite captured an image of the devestation around Kalutara, Sri Lanka (top), on December 26, 2004, at 10:20 a.m. local time?about an hour after the first in the series of waves hit. [A Quickbird image taken on January 1, 2004 (lower), shows the normal ocean conditions.] Water is flowing out of the inundated area and back into the sea, creating turbulence offshore. Some near-shore streets and yards are covered with muddy water. It is possible that the image was acquired in a ?trough? between wave crests. Imagery of nearby beaches shows that the edge of the ocean had receded about 150 meters from the shoreline.More images [ http://www.digitalglobe.com/tsunami_gallery.html ] are available on the DigitalGlobe web site. Images Copyright DigitalGlobe [ http://www.digitalglobe.com/ ] |
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