Information's relation to Time and Mass

In summary, the transporter would require an object to be still so the scanner/transporter can scan it easily, but if the object is moving, the scanner/transporter would have to be moving as well in order to reconstruct the object at the speed of light.
  • #1
hankaaron
83
4
Suppose we have a Star Trek type transporter. In this transporter objects are deconstructed on the transporter pad. Every atom's property is perfectly or even near perfectly copied. Now, deviating a bit from the show, a large block of material on another planet, equal in mass to the transported object, is arranged to match the atomic properties of the transported object. The object is now considered transported.

Now suppose that this is how nature progresses through time. Nature constantly deconstructs objects in the universe in one moment in time, and then recreates it in another moment in time. That would mean that objects with more mass, would required a longer time to deconstruct and reconstruct.

An object with greater mass makes time slow down (relative to it) as the information is much larger. But what about the effect of velocity on time?

Well if an object is moving faster, more of it is energy rather than mass. So it takes a shorter time to deconstruct and reproduce, so time speeds up for that object.

Am I anywhere near a logical train of thought?

P.S. If I am in the wrong forum for this kind of post, forgive me.
 
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  • #2
I can see what you're thinking, but id you was to deconstruct moving object to transport it, it would be a lot harder. Maybe impossible? I don't really know but it seems that way since if you want to transport you would have to be still so the scanner/transporter can scan it easily, Where as if it's moving, the scanner/transporter would have to be moving as well.
 
  • #3
The logic makes sense, but technically that is very improbable. Does it reconstruct the object at the speed of light? If it doesn't, then time would be very fragmented and not smooth. And anyways, nothing can travel faster than light-- according to Einstein, but which I do not believe. After all--sorry for the digression; but technically can't you divide the "largest" speed possible--the speed of light, by the smallest time possible--the Planck time, and get a speed faster than the speed of light? I dunno. But good thinking. :)
 
  • #4
bcphysicist said:
The logic makes sense, but technically that is very improbable. Does it reconstruct the object at the speed of light? If it doesn't, then time would be very fragmented and not smooth. And anyways, nothing can travel faster than light-- according to Einstein, but which I do not believe. After all--sorry for the digression; but technically can't you divide the "largest" speed possible--the speed of light, by the smallest time possible--the Planck time, and get a speed faster than the speed of light? I dunno. But good thinking. :)

You can't divide a big number by a smaller umber and get a bigger number than the big number you divided...
 
  • #5
megadeth said:
you can't divide a big number by a smaller umber and get a bigger number than the big number you divided...

1/0.1=10
 
  • #6
bcphysicist said:
The logic makes sense, but technically that is very improbable. Does it reconstruct the object at the speed of light? If it doesn't, then time would be very fragmented and not smooth.

*That* doesn't make any sense.

And anyways, nothing can travel faster than light-- according to Einstein, but which I do not believe.

It's not a question of belief, it's a question of understanding ...

After all--sorry for the digression; but technically can't you divide the "largest" speed possible--the speed of light, by the smallest time possible--the Planck time, and get a speed faster than the speed of light? I dunno. But good thinking. :)

After all, if you divide a quantity with the dimension of speed, by a quantity with the dimension of time, don't you get a result with the dimension of acceleration?
 
  • #7
MegaDeth said:
I can see what you're thinking, but id you was to deconstruct moving object to transport it, it would be a lot harder. Maybe impossible? I don't really know but it seems that way since if you want to transport you would have to be still so the scanner/transporter can scan it easily, Where as if it's moving, the scanner/transporter would have to be moving as well.

I think what you are saying is that, conservation of momentum (and angular momentum) tells us that in order for the reconstructed object to remain motionless on the "platform", the velocity (not just the speed) of the receiver would have to be matched to the speed of the sender. That certainly seems correct ... so actually, Kirk and Spock should have been smashed to a paste the first time they beamed up from the surface of a planet to the Enterprise in orbit.

But it's all good in the show, because it's sci-fi .. they just need to invoke the (imaginary) Kansuke-Bonobo theory of dilithium-powered quantum warp momentum cancellation. :-p
 
  • #8
SpectraCat said:
1/0.1=10

Oh yes, I forgot about decimals.
 
  • #9
hankaaron said:
That would mean that objects with more mass, would required a longer time to deconstruct and reconstruct.
Not if the parts were (de)constructed in parallel.

hankaaron said:
An object with greater mass makes time slow down (relative to it) as the information is much larger.
Actually gravitational fields make time slow down relative to observers at a greater distance from the mass, not relative to the mass itself. This is absolute in GR, not relative. What is relative about it in GR is that different observers disagree on how much clocks slow down for different observers, but how could they agree if their clocks are going different rates.

hankaaron said:
Well if an object is moving faster, more of it is energy rather than mass. So it takes a shorter time to deconstruct and reproduce, so time speeds up for that object.
A fast moving mass slows downs relative to another inertial mass. Of course this goes both ways but the accelerated observer is the one with the overall slowest clocks when they meet again. So again it is backwards from the given assumptions.

This all means that the effect is backwards and (de)constructed rate must be presumed serial for time to have meaning the way it was defined here. The general idea may or may not have some dubious validity in the right context but as stated this is not the right context.
 
  • #10
SpectraCat said:
I think what you are saying is that, conservation of momentum (and angular momentum) tells us that in order for the reconstructed object to remain motionless on the "platform", the velocity (not just the speed) of the receiver would have to be matched to the speed of the sender. That certainly seems correct ... so actually, Kirk and Spock should have been smashed to a paste the first time they beamed up from the surface of a planet to the Enterprise in orbit.

But it's all good in the show, because it's sci-fi .. they just need to invoke the (imaginary) Kansuke-Bonobo theory of dilithium-powered quantum warp momentum cancellation. :-p

That transporters sci fi, but it doesn't really mean that transporters are impossible, just very, very improbable with the technology of today.
 
  • #11
It seems to me that this theory (if I can call it that) could be tested experimentally. What you would do is make two lumps of the same non- radioactive material (say lead, for instance).

The smaller of the two sizes should always have a greater number of "defective parts per million". That is, it should age much more than its larger counterpart. The aging comes about because there is always some chance of error in the duplication. Since the smaller object duplicates more often (to us), it should appear to age faster.
The differences might be very small, but it may be detectable.
 

FAQ: Information's relation to Time and Mass

1. How does time affect the amount of information that can be processed?

Time plays a crucial role in the amount of information that can be processed. As time passes, more information is generated and accumulated, and this can lead to an increase in the overall amount of information that needs to be processed. However, with advancements in technology and increased processing speeds, it is possible to process larger amounts of information in a shorter period of time.

2. Is there a relationship between the mass of an object and the amount of information it can hold?

There is no direct relationship between the mass of an object and the amount of information it can hold. However, the materials used to create an object can affect its information storage capacity. For example, a hard drive made with higher density materials can hold more information than one made with lower density materials, even if they have the same mass.

3. How does the passage of time affect the accuracy of information?

The accuracy of information can be affected by the passage of time. As time passes, new information may become available, which can lead to the revision or update of previously existing information. Additionally, the memory and perception of individuals can also change over time, potentially impacting the accuracy of information.

4. Is there a limit to the amount of information that can be stored in a given space?

Yes, there is a limit to the amount of information that can be stored in a given space. This limit is determined by the storage capacity of the medium used to store the information. For example, a hard drive has a finite storage capacity, and once it reaches its limit, it can no longer store additional information.

5. How does the concept of time affect the processing and storage of information in computers?

The concept of time is essential in the processing and storage of information in computers. Computers use a clock to keep track of time and synchronize tasks, which allows for the efficient processing of information. Additionally, time is used to organize and retrieve information from storage devices, ensuring that it is accessed in the correct order.

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