indirachap
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Can anyone prove that Time Dialation affects biological systems?
The discussion centers on the effects of time dilation on biological systems, exploring whether and how time dilation, as described by the theory of relativity, impacts biological processes. Participants engage in a debate about the applicability of relativistic effects to biology, considering both theoretical and practical implications.
Participants express a range of views, with no consensus reached on whether time dilation affects biological systems. Some argue for its applicability based on EM interactions, while others maintain that biological processes operate independently of relativistic effects.
Participants highlight the complexity of defining "biological time" and the assumptions underlying the discussion, particularly regarding the relationship between EM forces and biological functions. The discussion reflects uncertainty about how time dilation interacts with biological processes and the implications for theories of relativity.
Ryan_m_b said:Why wouldn't it apply to biology?
To what and in what way?indirachap said:Biological systems work differently
Ryan_m_b said:To what and in what way?
So you deny that relativity is true?indirachap said:The beam of say a light clock is affected by acceleration and thus the measurement of time is affected but is time itself affected?? I think not IMHO
Ryan_m_b said:So you deny that relativity is true?
You're not making much sense. Could you articulate exactly why you think that biological systems would be exempt from the effects of time dilation?indirachap said:Perhaps as true as Quantum Mechanics is compatible with Relativity.
Ryan_m_b said:You're not making much sense. Could you articulate exactly why you think that biological systems would be exempt from the effects of time dilation?
What principles are you talking about? What is "biological time"?indirachap said:How does biological time slow down when the principles of biology are totally different?
Ryan_m_b said:What principles are you talking about? What is "biological time"?
No, the principles are not totally different. In fact, they are exactly the same. Both are based entirely on EM. See post 7.indirachap said:The beam of a light clock measuring time is affected by motion and the time measured slows down. How does biological time slow down when the principles of biology are totally different?
From the point of view of the traveller their heart still beats at ~1 beat per second. From the point of view of someone in a different frame of reference it may be beating at a far slower rate.indirachap said:A biological system works presumably to its own time within certain parameters - say 60 beats of a human heart per minute for homo sapiens. How is biological metabolism affected by velocity since excessive velocity would result in blackouts and eventually death. Surely this makes time travel impossible?
I also fear that whilst the measurement of time devices are affected by velocity, time itself isnt.
DaleSpam said:No, the principles are not totally different. In fact, they are exactly the same. Both are based entirely on EM. See post 7.
indirachap said:The beam of say a light clock is affected by acceleration and thus the measurement of time is affected but is time itself affected?? I think not IMHO
HallsofIvy said:All you are telling us so far is that you refuse to accept the "Theory of Relativity". And, since there are few theories that have been confirmed by experimental evidence, that makes me suspect that you do not understand what the "Theory of Relativity" says. In particular, the theory says that if you observe a system moving at close to light speed, relative to you, you will observe that time has slowed in that system, relative to you. All processes, biological and non-biological, will have slowed down becasuse time itself has slowed down for that system. It is NOT a matter of "EM forces" causing processes to slow down- it is time itself that has slowed down.
Every bodily function is entirely governed exclusively by the EM force. All chemical reactions are based on EM attractions and repulsions between nearby molecules. As EM slows down so do all chemical reactions. All of the enzymes, chemical reactions, ion channels, mass transport, and other biological phenomena are fundamentally EM interactions.indirachap said:How does the EM force affect our bodily functions?
In the frame of reference where the biological system is at rest, there is no 'slowing down process'. A clock slows down only from the point of view of an observer moving relative to the clock itself.indirachap said:Surely a biological system moving at nearly the speed of light relative to oneself wouldn't survive the slowing down process? Everything would have to operate at a virtual standstill! This is why I can't see how one can reconcile biology with time travel and relativity.
indirachap said:Surely a biological system moving at nearly the speed of light relative to oneself wouldn't survive the slowing down process? Everything would have to operate at a virtual standstill! This is why I can't see how one can reconcile biology with time travel and relativity.
I will have to adjourn for a while, thank you.
True, but it is also true that if the biological system is not at rest, then there is a 'slowing down process'.Jimmy said:In the frame of reference where the biological system is at rest, there is no 'slowing down process'.
If, in the frame of reference, the clock remains at rest and the observer is moving, then the observer's time is the one that has the 'slowing down process'.Jimmy said:A clock slows down only from the point of view of an observer moving relative to the clock itself.
Chestermiller said:Ryan mb and Jimmy both explained to you that, as reckoned by observers at rest within a biological species' reference frame, biological processes are not affected by time dilation. The speed of biological processes are only reckoned to be affected by time dilation by observers traveling in reference frames that are moving relative to the biological species. Time dilation is in many respects purely a geometric/kinematic effect in 4D hyperspace.
You guys are taking a very simple concept and confusing it. In Special Relativity, whoever and whatever is moving in a particular reference frame is experiencing time dilation. It's not an issue of what observers see because no one can see time dilation, rather it's an assignment due to a specified frame of reference.Mark M said:I don't think you understand special relativity. Different observers disagree on the passage of time and length of objects in order to preserve a constant speed of light. You always see the clocks in your frame of reference as ticking normally, and measure objects as having the same length as in the rest frame. However, observers in a slower frame of reference see your clock ticking slower. Hence, they see your body processes occurring slower. There is no contradiction.
You guys are talking a very simple concept and confusing it. In Special Relativity, whoever and whatever is moving in a particular reference frame is experiencing time dilation. It's not an issue of what observers see because no one can see time dilation, rather it's an assignment due to a specified frame of reference.
Why not? What should go wrong biologically if all processes run slower by the same factor? It will not only survive, but even live longer.indirachap said:Surely a biological system moving at nearly the speed of light relative to oneself wouldn't survive the slowing down process?
Would you also say "Objects do not experience velocity, measurements do."?Mk said:Objects do not experience time dilation, measurements do.ghwellsjr said:You guys are taking a very simple concept and confusing it. In Special Relativity, whoever and whatever is moving in a particular reference frame is experiencing time dilation. It's not an issue of what observers see because no one can see time dilation, rather it's an assignment due to a specified frame of reference.
In Special Relativity, time dilation is a formalized relation between the tick rate of an object (clock, observer, etc) and the tick rate of the coordinate time of a Frame of Reference based on the speed, v, of that object in that Frame of Reference. The ratio is √(1-v2/c2).Mk said:Measurements are formalized relations between objects.
Are you saying that within a single organism, there cannot be significant velocity difference between different parts of the organism and that is why an organism cannot experience significant time dilation? If so, that has nothing to do with the subject.Mk said:If biological systems are comprised of relating objects, then we must ask how different their energies and velocities are. At significant differences, there is significantly high time dilation and contraction. But biological processes must interact within a limited scale of energy and velocity, otherwise they would not comprise a stable organism. Biological organisms do not experience significant time dilation at all.
No.Mk said:If an observer/observed were to be moving at a significantly different speed than a biological system, then time dilation would occur, but only as part of that difference.
Correct?
ghwellsjr said:You guys are talking a very simple concept and confusing it. In Special Relativity, whoever and whatever is moving in a particular reference frame is experiencing time dilation. It's not an issue of what observers see because no one can see time dilation, rather it's an assignment due to a specified frame of reference.