Novalith Physics
I am currently in a debate of what the technical issues for a novalith cannon, including the size of the round itself, how the physics of the round works (how it doesn't burn up in the atmosphere), and how it remains nearly undetectable with the speed that is it traveling.
Can someone please explain these?
I can give a full rundown of my theories, and the comebacks that I have endured...
My Theorized Size:
The cannon fires the warhead at near light-speed, and is hard to detect, though if it is detected enough firepower may take out the warhead, but that will force it to detonate prematurely, the warhead is armed as soon as it is halfway to its target, making any premature destination inside USCC territory very rare, but still possible.
The cool-down time after firing is around 6 minutes, it takes another 5 to load and refire, a total of 11 minutes.
Seeing that this is under the classification of 'superweapon' I wish to limit it at one. (If I'm allowed 2 or 3, I won't argue)
The First Arguement+My list:
2. 99% the speed of light, if it went lightspeed, the thing would disintegrate
3. 250 MT may not see to do a lot, but if I were to have the Gigaton Nukes, I wouldn't be able to produce them (well not as many as the megatons), I may be able to do catastrophic damage with the gigaton system, but the megaton system is easier to produce numbers with (remember I work with numbers not bigger weapons)
4. Don't you think that before producing a weapon that is meant to hit planets, that i wouldn't have thought of atmosphere? The round travels 99% the speed of light, the atmosphere wouldn't really be and issue, it may burn up some, but the shells were made with hard enough materials, aerodynamic, and it wouldn't be like a 50 Cal hitting water, but just be one getting shot in air, there's some resistance but the speed vs resistance wouldn't affect it too much
5. I have never known of a Geiger counter that can detect radiation coming in at 99% the speed of light, plus there are other amounts of radiation in space due to stars, ships, and the like.
6. It is hard to detect, the shell is smaller than a Swallow Unmanned Interceptor, the likelihood that you have your motion trackers, or any type of radar, pointed at the round, is 990,000 to 1, if you do see it, it would be a really fast moving blip, about the size of a small asteroid or meteor, there were be radiation coming off asteroids and meteors too btw.
7. It isn't a ship its an aimable railgun, and yes its cloaked unless fired.
And the final straw (This person won't give up)
Second: Geiger counters Do detect radiation coming in at the speed of light, since gamma rays ARE EM, and DO travel at the speed of light. Besides, the sensors we are talking about here are much more sophisticated than a mere Gieger counters.
Third: The power requirements to lob a projectile at .99c are astronomical. Massively astronomical, unless you are running ZPMs, or something very much like, you won't have the power to do anything of the sort. if you can't even produce antimatter in quantity for power generation, then you won't have access to the technology required to lob a projectile that fast.
Fourth: If you are using a straight nuke it's gonna be heavy, and in order to release enough radiation to make a planet uninhabitable, it would have to be: the amount of radiation released would be astronomical, and Certainly detectable to normal sensors once fired, if not under cloak.
Please Help!!!