Precisely, we like a bit of hand-wavium - future tech is faster/better but Frontier keeps some limits - no antigrav etc. It 'feels' fineLet's try to keep the game fun.
Precisely, we like a bit of hand-wavium - future tech is faster/better but Frontier keeps some limits - no antigrav etc. It 'feels' fineLet's try to keep the game fun.
No, FTL travel is an impossibility. Seriously. All of this is just for fun.
No, FTL travel is an impossibility. Seriously. All of this is just for fun.
FTL transmissions of data already happens daily. Mass isn't far behind, we've been getting some good hints on how to do it lately.
Yay Science.
http://phys.org/news/2014-07-scientists-quantum-entanglement-amplified.html
As for mass, just refresh your memory on what the Higgs Boson is and what it's confirmed existence implies. People are still studying it's possible applications, so you won't find much written on it regarding FTL travel. It is a good candidate for an Alcubierre drive though.
What do you mean FTL than light transfer data? If you mean quantum entanglement, then it doesn't work the same as no information is sent. Sorry if you didn't mean that.
Information is sent. Quantum entanglement transmits information perfectly. It is, after all, the crux of the huge amount of interest behind it's study.
Because it literally is a perfect transmission of information. If the information is intercepted, corrupted or lost the entanglement is broken. So even when the desired data isn't transmitted, you always receive the 100% reliable information that it was not transmitted.
Seeing is believing right?
http://www.iflscience.com/sites/www...c/blog/[nid]/dn26111-1_1200.jpg?itok=_n5816EB
https://arxiv.org/ftp/arxiv/papers/1401/1401.4318.pdf
There. That's the simplest example I can be bothered to dig up.
Yup, you're not wrong there but also when you then change the state of one the other changes at exactly the same time - that's when the information gets transmittedI'll read that now, but my understanding was that once you observe one of a pair in one state, by inferring, you then know the state of the other, thus no data has travelled. I'll be be honest, I don't know.
I'll read that now, but my understanding was that once you observe one of a pair in one state, by inferring, you then know the state of the other, thus no data has travelled. I'll be be honest, I don't know.
Yup, you're not wrong there but also when you then change the state of one the other changes at exactly the same time - that's when the information gets transmitted
the cat silhouette was inspired
But they exist it all states until viewed thus the information is transfered by you, not faster than the speed of light?
Windowscreen smudge that PDF won't open on my phone so will take a look tomorrow, thanks.
What about the distance between the particles? They can be anywhere. Scientists have been having fun running experiments with them between China and the United States, sending the entangled photons across the pacific over fiber optic lines and then studying the effects experiments on one side or the other of the pacific has on it's counterpart.
The hidden variables theory fails, however, when we consider measurements of the spin of entangled particles along different axes (for example, along any of three axes which make angles of 120 degrees). If a large number of pairs of such measurements are made (on a large number of pairs of entangled particles), then statistically, if the local realist or hidden variables view were correct, the results would always satisfy Bell's inequality. A number of experiments have shown in practice that Bell's inequality is not satisfied. However, all experiments have loophole problems. When measurements of the entangled particles are made in moving relativistic reference frames, in which each measurement (in its own relativistic time frame) occurs before the other, the measurement results remain correlated.
The fundamental issue about measuring spin along different axes is that these measurements cannot have definite values at the same time―they are incompatible in the sense that these measurements' maximum simultaneous precision is constrained by the uncertainty principle. This is contrary to what is found in classical physics, where any number of properties can be measured simultaneously with arbitrary accuracy. It has been proven mathematically that compatible measurements cannot show Bell-inequality-violating correlations, and thus entanglement is a fundamentally non-classical phenomenon.
She's still under the assumption that there hasn't been an accurate Bell test done that couldn't have had a plausible error caused by other phenomena.
https://en.wikipedia.org/wiki/Bell's_theorem
http://arxiv.org/pdf/1508.05949v1.pdf
Since you're on your phone here's a simple video about that article. Sorry about the obnoxious music, I can't be responsible for what Dutch Nerds find appropriate to post on Youtube.
https://youtu.be/AE8MaQJkRcg
I don't want to complain
But... Have some constructive criticism:
EDIT: it doesn't cool you down to 0 kelvin, as pointed out below. My point doesn't change, so please don't talk about the current temperature in the comments correcting me.
So right now, to purge heat you fire out shrapnel or pieces of metal into space. Sure, it works fine. It uses power? Surely this wouldn't be mechanical or only uses a minute amount of power to flick a switch? It's not like it uses any more than an LED light to release a piece of metal?
Power aside, heat sinks reduce your heat to 0%. I don't think this is acceptable. 0% heat is close to absolute 0 (I assume) but your modules are always producing heat from the reactor, so reaching anywhere near absolute 0 is not possible.
Next thing for me to complain about is the module itself. Launching metal/material into space is not very good or efficient heat dispersal. Animals like elephants have a VERY low surface area to volume ratio, which means elephants build up heat extremely quickly. The same goes for large ships (hence why Capital Ships have special modules to keep them cool). An elephant has large ears (not to hear stuff) to disperse their heat. A ship in elite dangerous in this year should be waaaaaay past launching heatsinks. We need a deployable module which opens up a very large, foldable radiator unit. A large panel with strips of metal running from top to bottom which can be deployed and retracted at will. The rods are for more surface area (heat dispersal).
Another suggestion would be to fit a utility mount with a corrugated metal panel. This makes the ship look a lot nicer whilst still managing to disperse heat.
Deploying a foldable radiator module should reduce heating effects by 20%. If you would be on 100% heat for whatever reason, then you deploy this, it goes down to 80%.
The small panel should only decrease it by 10%, being considerably smaller. These modules also don't require ammo, this being cost efficient as well as realistic.
Idea inspired by Kerbal Space Program and life on earth.
Feedback would be appreciated, thank you - have a nice day
Clark Kent is Superman?!
Next you will be telling Santa isn't real!
What about the distance between the particles? They can be anywhere. Scientists have been having fun running experiments with them between China and the United States, sending the entangled photons across the pacific over fiber optic lines and then studying the effects experiments on one side or the other of the pacific has on it's counterpart.
Sorry, but all this is bunkum. The articles aren't, don't misunderstand me, but the idea that this implies FTL communication is. It's a fundamental law of the universe that no information can be transmitted FTL. Any amount of you or anyone else wanting it otherwise don't make it so. When you instantaneously change the state of a particle via entanglement, you have to find out by other means (sub-FTL) what the state of the _other_ entangled particle is to be able to tell what the state of the _first_ entangled particle is. This is inescapable, and a picture of an entangled cat doesn't change it.
Not necessarily saying that FTL is and will always be impossible, because you can't say absolutes in science. But _nothing_ indicates anything else. If you can find, in a peer reviewed article, where someone is saying something else, then fine, show me. Physorg and arxiv don't cut it (also, the articles you posted didn't say anything about FTL information transfer anyway). I also read the recent Nature article about the loophole-free Bell test and surprise, no mention of FTL information transfer there either.
Nope. It's a "fundamental law" of classical physics. Quantum physics gives plenty of options to break that rule. The last paper I linked was a successful test proving it. Read up.
An unsuccessful, loophole-free Bell Test IS FTL transmission of information. The test was designed to debunk the idea that it was possible because proponents of Einstein's theory of relativity didn't like entanglement being predicted in it any more than he did. Instead of being used to prove that quantum entanglement doesn't allow FTL transmission of information, it's been used to do the exact opposite time and time again. People still refused to believe it and kept denouncing the failed Bell tests as being flawed, with only hypothetical guesses as to why the experiment could possibly be flawed, until within the last decade or so people started closing the loopholes and got the same results.
The "Fundamental Law" that you're thinking of? It's not actually a law. There's no hard science or mathematics to disprove the use of quantum entanglement for FTL transmission. Everybody has just been riding on Einsteins assumptive oral statement that it shouldn't be possible, which was never investigated in detail by him.