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Showing posts with label Installed. Show all posts
Showing posts with label Installed. Show all posts

First GOES-R instrument ready to be installed onto spacecraft

May 2, 2013

The first of six instruments that will fly on GOES-R, NOAA’s next-generation of geostationary operational environmental satellites, has been completed seven months before its scheduled installation onto the spacecraft.

The instrument, the Extreme Ultraviolet and X-ray Irradiance Sensors, or EXIS, will provide forecasters at NOAA’s Space Weather Prediction Center with some of the most important early warnings of impending solar storms. It will also give scientists a more accurate measure of the extremes in solar energy radiating toward earth, which can severely disrupt telecommunications, air travel, and the performance of power grids.

“Severe space weather has the potential to cause significant damage to the U.S. and global economy, so it’s critical GOES-R has this technology in place as quickly as possible to monitor it,” said Mary Kicza, assistant administrator for NOAA’s Satellite and Information Service.

GOES-R, scheduled to launch in 2015, will be more advanced than NOAA’s current GOES fleet. The satellites are expected to more than double the clarity of today’s GOES imagery and provide more atmospheric observations than current capabilities with more frequent images. Data from the GOES-R instruments will be used to create many different products, enabling NOAA meteorologists and other users to better monitor the atmosphere, land, ocean and the sun, facilitating more timely and accurate forecasts and warnings.

The University of Colorado’s Laboratory for Atmospheric and Space Physics (LASP) built and tested EXIS.

EXIS will be shipped from the LASP site in Boulder to Lockheed Martin Space Systems Co. in Littleton, Colo., later this year to be installed onto the spacecraft. Lockheed is building the GOES-R spacecraft.

The remaining GOES-R instruments to be delivered are:

the Advanced Baseline Imager, the primary instrument on GOES-R for imaging Earth’s weather, climate, and environment;Geostationary Lightning Mapper, which will provide for the first time a continuous surveillance of total lightning over the western hemisphere from space;the Space Environment In-Situ Suite, which consists of sensors that will monitor radiation hazards that can affect satellites and communications for commercial airline flights over the poles; the Solar Ultraviolet Imager, a high-powered telescope that observes the sun, monitoring for solar flares and other solar activity that could impact Earth, andthe Magnetometer, which will provide measurements of the space environment magnetic field that controls charged particle dynamics in the outer region of the magnetosphere. These particles can be dangerous to spacecraft and human spaceflight.

 NOAA manages the GOES-R Series Program through an integrated NOAA-NASA program office, staffed with personnel from NOAA and NASA, and co-located at NASA’s Goddard Space Flight Center in Greenbelt, Md.

“We’re just a few years away from seeing significant improvements in the way NOAA will serve the public with even better weather forecasts and warnings,” said Greg Mandt, director of the GOES-R Series Program..

NOAA’s mission is to understand and predict changes in the Earth's environment, from the depths of the ocean to the surface of the sun, and to conserve and manage our coastal and marine resources. Join us on Facebook, Twitter and our other social media channels.


View the original article here

Tornado Sensors Should Be Installed in Buildings (ContributorNetwork)

COMMENTARY | The Holy Grail of tornado chasers is to have sensors that measure the inside of a tornado. The best way to do this, so far, has been to have mobile teams dispatched during tornado season on the Great Plains to get near enough to thunderstorms. The teams deploy sensors and then move away quickly in hopes of determining what goes on inside a tornado.

Although footage from inside a tornado is rare, National Geographic attempted to do such a thing in 2005. Because tornadoes can veer radically from place to place and don't last long, getting sensors in place is difficult and can be hit-or-miss.

Perhaps scientists are going about tornado chasing the wrong way. When humans get lost in the wilderness or become stranded in a car in a snowstorm, the first rule is to stay put and let searchers come to you. Tornado chasing should be the same way.

Installing sensors in major buildings in cities and towns across tornado alley may be a more feasible solution. As technology becomes smaller and more affordable, weather sensors should be deployed in buildings every five to 10 blocks in cities across tornado alley. Having sensors in every building would be too expensive.

Since scientists have no way of predicting when and where tornadoes strike, they can narrow down buildings that are spaced far enough apart as potential targets for sensors. Consider a line of towns and cities from Dallas, Texas, to Bismarck, N.D. as a phalanx of areas that can have sensors installed.

It's almost as if a line of troops would be deployed on the battlefield, only this time the enemy is supposed to come towards them. Installing and upgrading sensors would take massive amounts of money. Much like the SETI project that aims radio telescopes at faraway places, this tornado sensing project may not come to fruition for decades. However, it would at least increase our chances of getting an inside look at one of nature's most incredible storms.

Sensor platforms would have to be battery operated so they wouldn't lose power as the tornado approaches. Barometric readings, GPS sensors and other instruments would need to be packed into the sensor suite.

It would be a huge undertaking, but it is possible. Not every building needs to have sensors installed, just enough to make it more likely that tornado will make a direct hit on the sensors. Given enough time and tumultuous weather, it's not a matter of if the stationary sensors will detect a tornado but when.


View the original article here

Tornado Sensors Should Be Installed in Buildings (ContributorNetwork)

COMMENTARY | The Holy Grail of tornado chasers is to have sensors that measure the inside of a tornado. The best way to do this, so far, has been to have mobile teams dispatched during tornado season on the Great Plains to get near enough to thunderstorms. The teams deploy sensors and then move away quickly in hopes of determining what goes on inside a tornado.

Although footage from inside a tornado is rare, National Geographic attempted to do such a thing in 2005. Because tornadoes can veer radically from place to place and don't last long, getting sensors in place is difficult and can be hit-or-miss.

Perhaps scientists are going about tornado chasing the wrong way. When humans get lost in the wilderness or become stranded in a car in a snowstorm, the first rule is to stay put and let searchers come to you. Tornado chasing should be the same way.

Installing sensors in major buildings in cities and towns across tornado alley may be a more feasible solution. As technology becomes smaller and more affordable, weather sensors should be deployed in buildings every five to 10 blocks in cities across tornado alley. Having sensors in every building would be too expensive.

Since scientists have no way of predicting when and where tornadoes strike, they can narrow down buildings that are spaced far enough apart as potential targets for sensors. Consider a line of towns and cities from Dallas, Texas, to Bismarck, N.D. as a phalanx of areas that can have sensors installed.

It's almost as if a line of troops would be deployed on the battlefield, only this time the enemy is supposed to come towards them. Installing and upgrading sensors would take massive amounts of money. Much like the SETI project that aims radio telescopes at faraway places, this tornado sensing project may not come to fruition for decades. However, it would at least increase our chances of getting an inside look at one of nature's most incredible storms.

Sensor platforms would have to be battery operated so they wouldn't lose power as the tornado approaches. Barometric readings, GPS sensors and other instruments would need to be packed into the sensor suite.

It would be a huge undertaking, but it is possible. Not every building needs to have sensors installed, just enough to make it more likely that tornado will make a direct hit on the sensors. Given enough time and tumultuous weather, it's not a matter of if the stationary sensors will detect a tornado but when.


View the original article here