l33telboi wrote:
Nukes and electronics? I doubt they would put any electronics in them, and if they did, there would be no reason for the electricity to flow around before the nuke detonates.
It has to, as the nukes worked on proximity fuses. This means sensors, and since they were in all likeliness passive, it also means good ones. Which means an activity.
As for Naquadah, what are you basing the fissionable material part on? IIRC it's always been somewhat of a mystery exactly how the material works.
I'm not saying it's fissionable, exactly, but that it surely enhances the explosion. It still requires, imho, a traditional nuclear warhead.
Almost 0 EM could mean anything. And there is actually a brief flash seen whey they go boom, so it fits. And he does say "almost 0 EM", not "an insiginificant percentage of EM", there is a difference.
Ho, that's hair splitting. Both indicate extremely low values. Almost zero is just a bit more specific.
As for the flashes, considering what we've seen on screen - huge double flashes - we would actually consider that they released a hell of EM radiations.
Well, radiation resistant material in Stargate is quite easy to make. As example, think of the small Naquadah reactors that have an output far in excess of the largest modern nuclear reactors.
Bottled reaction, possibly magnetic fields. It is irrelevant to a nuke.
Think of the F302s that are able to survive only a few solar diameters from a G-type star, yet the people inside not frying (heck, think of the window on the figher in relation to this.).
Was it that close?
Think of their ability to make directed explosives out of multi-megaton nukes.
They do have very radiation absorbant materials.
Yes, they seem to have good microsecond reflectors. Possibly some trinium-naqahdah alloy.
Sidenote: the sheer fact that there are forges which can melt naqahdah tells a lot about both Tau'ri and Goa'uld achievements in the domain or controlled high level reactions.
Back on topic.
This, however, doesn't change a thing. If the casing was flash vapourized and accelerated, the explosions would still blind us. Terribly.
I can't see how one can reasonably explain the space farts, safe saying that the nukes just fail undergoing the much planned reaction.
It's not easy to know when to detonate your nuke in advance, when you don't know if there's a shield and how far it extends from the ship.
Maybe the nukes should be equipped with sensitive proximity sensors or even antennas which would break first, when touching a shield, and thus send back a message to the nuke having it explode.
Only highly penetrative radiation i know if is Gamma radiation (or EM radiation in general), which is basically light at a wave-length higher then our eyes can perceive.
It's still an important quantity of gamma rays which can't be ignored.
It doesn't need to be gas, we could very well be talking about nukes that are much like frag grenades. They would actually be able to create such with the tech they have. And such bombs would be more lethal then nukes relying on pure radiation to do its work, as kinetic enregy is far more dangerous to space ships then radiation, on a pure joule per joule basis.
They'd need to be able to precisely shape the way the warhead cracks, and we'd have evidence of secondary debris impact against shields if that was so.
The explosions themselves don't look much shaped at all.
And again, they are nothing worth of even tons of energy released.
The radiations will travel at c, not the plasma. Plasma will cool down over distance, besides loosing intensity. Radiations will only loose intensity (in the sense that the inverse square law will make their concentration lower).
For plasma to lose intensity in space it would have to be there for a long long time. Remeber that heat doesn't get carried away from something due to the low density in space. Almost all the heat will be lost trough radiating, and that takes time. If there actually is time for the plasma to cool, then the nuke would've been detonated far, far away from the target.
The plasma will stretch over the distance. The distance between the most distant ionized particles, on each side of the expanding cloud, will greatly increase. Plasma is chaotic and gas expand very fast.
But that's thinking in terms of contemporary sensors though.
We're talking about a whole new level of sensors here. Wraith are able to beam people to the elementary particle scale. This makes their sensors extremely accurate.
Just as much as the Asgards'.
Doesn't matter. A mine would have a minimal amount of EM coming from it when inert. So minimal that it would be indistingushable from rocks.
Hardly. If sensors can decompose and reassemble people, they have to be so good that the mine could never be picked as mine.
In fact you'd be able to make it more indistiguishable then a normal rock with modern tech. So the almost 0 EM wouldn't make sense if this is what it's meant to describe.
I think it's pretty clear it's meant to be a mine that is like a rock. But it failed, as the Wraith thwarted this attempt.
Considering that the Wraith rarely seem to carry bags of asteroids with them, it seems fairly likely that they actually spotted those mines.
The rounds do travel more then half a city-width in a second, so it would be more then 1700m/s^2 even if we assume 3.2-3.6km wide radius.
That is not the impression I get from the video.
The screenshots I hope to post here will help to solve this issue.
All AP ammo tends to be very pointy, at these speeds it's going to be problematic though, since part of the slug will turn to plasma. This is why the rounds are actually glowing blue inside an atmosphere and yellow in space.
Unless they have a trinium tip with something heavier as a base, i suppose. It would make sense.
Trinium rounds would be expensive though.
Aye, i suggested as much, but it would be really really hard. Far out of my league. In any case, i hardly see that measurment nerfing the 6km+ figure.
We'll just have to wait to get another take I guess. :)
Yes, i can link you to the page, hold on.
Ah,
here we go.
Cool, I'll check it out later on, to see what we can get from it.