Now there is a lot going against humanity when it comes to space faring, far more than what meets the eye. Below are some basic variables that we will encounter that you may have already guessed, however, prepare to be floored since your guesses probably do not capture to true largeness of the hurdles we'd have to leap to make space travel possible at the very beginning!
![]() |
In Fun We Trust |
Variable 2-- In a star ship, you might think that speed is the biggest hurdle we face, but while you're not entirely wrong, technically we already know how to go faster than the speed of stupid, since any percentage of the speed of light is stupid, even 0.05% light speed. A joke, yes, but the truth remains, for going even a minuscule percentage of light speed we'd face destructive forces not even mother Earth faces as she zips through space at 66,490mph (18.5mi/s). And that's an entire planet. No human star ship could ever boast such size, but being the size of an ant and the size of a planet makes no difference even when going 1% the speed of light, let alone Project Daedalus' estimated 12% light speed. We'd face the power of atoms and energies against the hull at speeds that typically cause things to become, like hitting water at even mild speeds is like hitting concrete!
![]() |
Neutrons colliding (neutrons are uncharged particles) |
-
A star ship would not simply cause fusion to happen for propulsive purposes, but these atoms would inevitably fuse to the hull. Not only that, but star ships would use antimatter, but a thought occurs regarding this: Not even the stars could handle antimatter atoms fusing. It's simply too violent of a reaction and assuming a star could even form at all, it'd devour itself and probably have the heat and luminosity of several blue supergiants. No balance could be struck and the star would pretty much fuse itself together and supernova, which would probably consume a small galaxy ha-ha, knowing our luck. Even the atoms in the star ship hull and blast chambers would be forced to participate in this fusion process since there is no known practical way to halt atomic processes of this magnitude. What is the hull made of anyway?....atoms of complex inorganic materials, like space alloys and metals like titanium.
-
Atoms make up every "thing" in the whole universe and are even known to create organic molecules with proper methodology and conditions. And the universe is not empty. It is full of atoms, mostly hydrogen. Hydrogen is exceedingly common. It just seems to be absolutely everywhere for some reason. Who cares, the point is that we don't want to explode with thousands of pounds of antimatter at light speed, where a couple pounds is equal to a 25 megaton bomb, I can't imagine thousands of pounds at over 600 million mph.
-
Scientists say we'd need a sort of static or electric shielding over the hull to neutralize this atomic energy, otherwise we'd just explode. In layman's terms, it's a shield like on Star Trek. Electricity and magnets and other types of energies like those can generate fields, known as magnetism and static field, and may be capable of protecting a ship in a limited capacity, theoretically, of course. They can charge up particles or deionize charged molecules depending on how you use it, and as you've seen, magnets cling to your fridge as well as push other magnets away, and you've seen electricity make your hair stand up on end as well as push other molecules away. The key factor for some of these "push" techniques seems to be heat production as well as energy consumption. I don't care much to talk about it, but suffice it to say that this topic is utterly endless, one thing leads to another, and the variables never seem to end.
A star ship would not simply cause fusion to happen for propulsive purposes, but these atoms would inevitably fuse to the hull. Not only that, but star ships would use antimatter, but a thought occurs regarding this: Not even the stars could handle antimatter atoms fusing. It's simply too violent of a reaction and assuming a star could even form at all, it'd devour itself and probably have the heat and luminosity of several blue supergiants. No balance could be struck and the star would pretty much fuse itself together and supernova, which would probably consume a small galaxy ha-ha, knowing our luck. Even the atoms in the star ship hull and blast chambers would be forced to participate in this fusion process since there is no known practical way to halt atomic processes of this magnitude. What is the hull made of anyway?....atoms of complex inorganic materials, like space alloys and metals like titanium.
-
Atoms make up every "thing" in the whole universe and are even known to create organic molecules with proper methodology and conditions. And the universe is not empty. It is full of atoms, mostly hydrogen. Hydrogen is exceedingly common. It just seems to be absolutely everywhere for some reason. Who cares, the point is that we don't want to explode with thousands of pounds of antimatter at light speed, where a couple pounds is equal to a 25 megaton bomb, I can't imagine thousands of pounds at over 600 million mph.
-
Scientists say we'd need a sort of static or electric shielding over the hull to neutralize this atomic energy, otherwise we'd just explode. In layman's terms, it's a shield like on Star Trek. Electricity and magnets and other types of energies like those can generate fields, known as magnetism and static field, and may be capable of protecting a ship in a limited capacity, theoretically, of course. They can charge up particles or deionize charged molecules depending on how you use it, and as you've seen, magnets cling to your fridge as well as push other magnets away, and you've seen electricity make your hair stand up on end as well as push other molecules away. The key factor for some of these "push" techniques seems to be heat production as well as energy consumption. I don't care much to talk about it, but suffice it to say that this topic is utterly endless, one thing leads to another, and the variables never seem to end.
Well, there are a lot more variables as you can probably guess. But these are the big guys! I hope you enjoyed that!
No comments:
Post a Comment