^So make it more complicated just to make it look like a fictional ship? yeeeah.
^So make it more complicated just to make it look like a fictional ship? yeeeah.
lol just like you have to do when your going between buildings that are side by side.This means that to get to my girlfriend working one meter away from me (give or take one kilometer), I've got to take the turbolift to travel one Taipei 101 down, and then take another turbolift to climb one Taipei 101 up. That, or perform the space equivalent of jumping off a moving car.
I like it.
Anyhow I'll never understand what is so complicated with using rotational forces to make gravity. The earth rotates the sun all the time, if it didn't we'd collide with it, the same with the moon. It's a failure of science fiction, for this idea not to be commonplace after all this time.
I've never been given a good reason while rotational forces are the best form of gravity.
The problem is that superficially it may look like the Enterprise on the outside, but on the inside it won't look or feel anything like the Enterprise. Trying to force the function to follow the form really compromises the thing.The design is a concept and it serves to make a point. I think it does it well. The point is that you could build a space ship that feels like the Enterprise on the inside and on the outside, and that you could do it right now. If someone actually starts building something, then we'd worry about how complicated it is. I think nobody would disagree that dropping the asymmetric parts, especially the nacelles, is a good idea.
Thanks for the refresher Christopher, but in the end a counter rotating section is not necessary if your not trying to shoehorn it into a fictional ship design. It does add to the complexity of the design in this situation all in the name of aesthetics.On the contrary. Using counterrotating sections is a standard idea when it comes to proposed designs for space habitats or vessels that incorporate rotating sections. A habitat rotating in only one direction would have a gyroscope effect that would make it difficult to turn its axis, but it would need to be able to precess its axis to keep solar panels, windows, mirrors, etc. properly aligned with the Sun. So a standard solution is to build two adjacent counterrotating habitats and link them physically, so their angular momentum cancels out and there's no resistance to precession. It's got nothing to do with "mak[ing] it look like a fictional ship" -- it's just a good idea for any space dwelling that incorporates a rotating section.
Thanks for the refresher Christopher, but in the end a counter rotating section is not necessary if your not trying to shoehorn it into a fictional ship design.
In zero G you actually wouldn't want velcro to be very strong to simulate walking/standing. Too strong and you would have trouble over compensating for "ripping" yourself from the surface with each step.
^Oh I agree. Velcro might be useful for "station keeping" so to speak, but not for locomotion.
Thanks for the refresher Christopher, but in the end a counter rotating section is not necessary if your not trying to shoehorn it into a fictional ship design.
Of course it is...
This is an issue of semantics, in orbit the iss, is considered a zero(micro) gravity environment, The reality is, the difference in gravitational forces 100km up isn't that extreme and it's the same outward acceleration keeping us in orbit, the weightlessness, isn't considered artificial and is taken for granted, why is it such a conceptual stretch, to say the same for gravity wheels. I agree technically, but as long as were considered being in orbit a microG environment, I think we should back away from the "artificial" tag. Again my point was that this shouldn't be hard to imagine from any high school graduate.Anyhow I'll never understand what is so complicated with using rotational forces to make gravity. The earth rotates the sun all the time, if it didn't we'd collide with it, the same with the moon. It's a failure of science fiction, for this idea not to be commonplace after all this time.
I have no idea what you're saying here. The Earth's revolution around the Sun (rotation is what it does about its own axis, revolution what it does around the Sun) has nothing to do with its gravity, which is generated by its own mass exerting gravitational force.
Although the physics of planetary orbit are related to the physics of artificial rotational "gravity." It's not real gravity, of course, but it's an outward acceleration. Planets stay in orbit because that outward rotational acceleration (and yes, it is outward within the rotating observer's frame of reference) balances the inward pull of the Sun's gravity.
Yes but they don't call it artificial tea, artificial sleep when one sleeps on a bed, or artificial music. I guess the real problem is those that say we suffe from living in a zero g environment, they should say that the rotational forces of orbit cancel out the gravitational forces, so the real problem is those pesky rotational forces of being in orbit.^Well, of course the "gravity" produced by rotation should be called artificial gravity, for two reasons. One, it's not actual gravity, i.e. the fundamental interaction that attracts masses; instead, it's weight created by a different form of acceleration, and calling it "gravity" is just a figure of speech. (Although one could argue that "gravity" literally means heaviness, so it's accurate in that sense.) Two, the word "artificial" doesn't actually mean "unreal;" it literally means "made by art," i.e. created through the application of human skill and effort. The weight generated by the rotation of a space habitat is the result of human invention, therefore it is artificial by definition.
Yes but they don't call it artificial tea, artificial sleep when one sleeps on a bed, or artificial music.
I guess the real problem is those that say we suffe from living in a zero g environment, they should say that the rotational forces of orbit cancel out the gravitational forces, so the real problem is those pesky rotational forces of being in orbit.
If that is the case than our problem, isn't gravity itself but rotational forces, it would seem using rotational forces is the only logical answer.![]()
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