Tony Stark dissagrees.Scott Bullock said:- but one has to crawl before you sprint," said Gabrielse.
You must construct additional Pylons...I mean antimatter.SaturdayS said:The whole symmetry theory makes me feel like the universe is just a big RPG. I mean like I should put down the controller for the games I've been playing and start farming for the other types of antimatter so I can make some sweet power ups before the rest of the n00bs wear them out.
When antimatter and matter come in contact, to use super-complicated science terms, they kerplode and convert their mass almost entirely into energy. The biiiiiig problem with antimatter is that, even if we could make enough of the stuff, you would need to use more energy to create it than it would release in a reaction. It'd be great at storing enormous amounts of energy, but it'd waste an even more enormous amount of energy during production.Andronicus said:Okay, I get that this is a big deal and everything, we've never been able to hold antimatter before.
But what can we actually do with it. How the hell do we harness its "energy" to, uh make starships. I'm not a physics nut, so can someone explain this to me? I'm only just finishing my first year Chemistry at uni, and from what little physics-based stuff I was able to get from that, I would have thought something with no net charge would be pretty useless.
Tony Stark has the advantage of living in a universe where the laws of science and the very nature of the universe itself can be changed on a whim.Green Ninja said:Tony Stark dissagrees.Scott Bullock said:- but one has to crawl before you sprint," said Gabrielse.
Am I the only one who immediately thought of Angels and Demons (by Dan Brown) when I read this?Scott Bullock said:Scientists have announced the first successful attempt to trap and hold antimatter atoms.
To use even more super-complicated sciency terms, when anti-matter and matter meet each other, they annihilate[footnote]Yes, that is the scientific term.[/footnote] each other, converting the vast majority of their mass into lots of energy [footnote]Remember E=mc²? [footnote]Note that it's only c that's squared, not the whole mc.[/footnote] That's the formula for converting mass into energy. And considering c is the speed of light...[/footnote]. Obviously, the big glowing problem with trying to store antimatter is that trying to prevent said anti-matter meeting normal matter is bloody hard, considering pretty much all of the Universe we know about is standard matter.megs1120 said:When antimatter and matter come in contact, to use super-complicated science terms, they kerplode and convert their mass almost entirely into energy. The biiiiiig problem with antimatter is that, even if we could make enough of the stuff, you would need to use more energy to create it than it would release in a reaction. It'd be great at storing enormous amounts of energy, but it'd waste an even more enormous amount of energy during production.Andronicus said:Okay, I get that this is a big deal and everything, we've never been able to hold antimatter before.
But what can we actually do with it. How the hell do we harness its "energy" to, uh make starships. I'm not a physics nut, so can someone explain this to me? I'm only just finishing my first year Chemistry at uni, and from what little physics-based stuff I was able to get from that, I would have thought something with no net charge would be pretty useless.
Whatevs, poindexterDelusibeta said:To use even more super-complicated sciency terms, when anti-matter and matter meet each other, they annihilate[footnote]Yes, that is the scientific term.[/footnote] each other, converting the vast majority of their mass into lots of energy [footnote]Remember E=mc²? [footnote]Note that it's only c that's squared, not the whole mc.[/footnote] That's the formula for converting mass into energy. And considering c is the speed of light...[/footnote]. Obviously, the big glowing problem with trying to store antimatter is that trying to prevent said anti-matter meeting normal matter is bloody hard, considering pretty much all of the Universe we know about is standard matter.megs1120 said:When antimatter and matter come in contact, to use super-complicated science terms, they kerplode and convert their mass almost entirely into energy. The biiiiiig problem with antimatter is that, even if we could make enough of the stuff, you would need to use more energy to create it than it would release in a reaction. It'd be great at storing enormous amounts of energy, but it'd waste an even more enormous amount of energy during production.Andronicus said:Okay, I get that this is a big deal and everything, we've never been able to hold antimatter before.
But what can we actually do with it. How the hell do we harness its "energy" to, uh make starships. I'm not a physics nut, so can someone explain this to me? I'm only just finishing my first year Chemistry at uni, and from what little physics-based stuff I was able to get from that, I would have thought something with no net charge would be pretty useless.
Fixed!So we need a lot more atoms and a lot longer times before it's really useful - but one has to crawl before you jump to Warp 5.
If you could hold on to the antiatoms for long enough to store them, you could let them annihilate tiny (really tiny, or you won't have any generator left) chunks of matter in controlled bursts.Andronicus said:Okay, I get that this is a big deal and everything, we've never been able to hold antimatter before.
But what can we actually do with it. How the hell do we harness its "energy" to, uh make starships. I'm not a physics nut, so can someone explain this to me? I'm only just finishing my first year Chemistry at uni, and from what little physics-based stuff I was able to get from that, I would have thought something with no net charge would be pretty useless.