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I guess you haven't been following Virgin Galactic's effort. They are NOT using "conventional multi-staging rocketry" They use one stage to orbit dropping from an airplane
Originally posted by BlasteR
I worked in munitions for the U.S. Air Force for over 6 years.
Originally posted by zorgon
Originally posted by BlasteR
I worked in munitions for the U.S. Air Force for over 6 years.
So why does the military need to test these bombs all the time? I mean they fired off over 900 atomic bombs in 'test' Okay already they WORK Nagasaki and Hiroshima proved that why over 900 tests?
That's a lot of bucks wasted to prove they work... but now that part of the desert is contaminated for 25,000 years
Originally posted by vze2xjjk 6 mile high explosive debris expected.
"The cloud from the Centaur rocket booster will kick up 350 metric tons of debris that should spread six miles above the surface of the moon, hitting the sunlight and making it visible to amateur astronomers across North America. Over the final four minutes of its existence, as LCROSS follows the same terminal trajectory as the Centaur, the spacecraft will train its instruments and cameras on the debris cloud, searching it for the chemical signature of water. Previous spacecraft and ground-based instruments have detected signs of hydrogen near the moon's poles, and scientists are split over whether that is from ice that could have arrived through the impact of comets or by other means. Despite all the serious scientific talk about hydrogen signatures and lunar regolith, flying a rocket booster into the moon at 5,600 mph to trigger a massive explosion is just flat-out cool. 'We're certainly going to be making a big splash,' says Kimberly Ennico, the LCROSS payload scientist. 'We're going to see something, but I don't know what to expect. I know on the night of the impact, I'll be running on adrenaline.'"
From: earthobservatory.nasa.gov...
The Lunar Reconnaissance Orbiter hung on to the coasting rocket for about 8 minutes before separating. In four days, it will reach the Moon, where it will go into orbit just 31 miles above the surface. The Lunar Crater Observation and Sensing Satellite is holding on to the spent rocket. In October, it will hurl the empty rocket toward a crater at the South Pole and use its sensors to figure out whether the resulting debris contains water ice. Later, the spacecraft itself will crash into the crater. The debris kicked up by the collision will be so tremendous that it will probably be visible from Earth with a good amateur telescope.
emphasis NOT added - for sme reason HTML codes aren't working atm...
Okay so just the booster impact will throw 350 metric tons of debris into space?
That's 350 METRIC TONNES of water ice WASTED
... and no one thinks wasting several hundred tons is a problem?
I just ran across THIS right wing news site that claims the mission is all a ploy and that the "bomb" is actually going to miss the moon by miles, orbit the moon and then be launched by lunar gravity towards Tehran...
Originally posted by BlasteR
I keep hearing pretty wild theories about this moon mission.
I just ran across THIS right wing news site that claims the mission is all a ploy and that the "bomb" is actually going to miss the moon by miles, orbit the moon and then be launched by lunar gravity towards Tehran...
WW, your weight comparison to 747 helped me understand the (in)significance of the anticipated size of "explosion." But wouldn't impact velocity be a factor?
Mean density 3,346.4 kg/m³[1]
Equatorial surface gravity 1.622 m/s² (0.165 4 g)
Escape velocity 2.38 km/s
Meteor Crater is a meteorite impact crater located approximately 43 miles (69 km) east of Flagstaff, near Winslow in the northern Arizona desert of the United States.....[...]....The object that excavated the crater was a nickel-iron meteorite about 50 meters (54 yards) across...
Modelling initially suggested that the meteorite struck at a speed of up to 20 kilometers per second (45,000 mph), but more recent research suggests the impact was substantially slower, at 12.8 kilometers per second (28,600 mph). It is believed that about half of the impactor's 300,000 tonnes (330,000 short tons) bulk was vaporized during its descent, before it hit the ground.
The impactor itself was mostly vaporized, very little of the meteorite remained within the pit that it had excavated.